提交 7d4775dd 编写于 作者: wmmhello's avatar wmmhello

merge from 3.0

......@@ -124,8 +124,25 @@ typedef struct TAOS_MULTI_BIND {
int num;
} TAOS_MULTI_BIND;
typedef enum {
SET_CONF_RET_SUCC = 0,
SET_CONF_RET_ERR_PART = -1,
SET_CONF_RET_ERR_INNER = -2,
SET_CONF_RET_ERR_JSON_INVALID = -3,
SET_CONF_RET_ERR_JSON_PARSE = -4,
SET_CONF_RET_ERR_ONLY_ONCE = -5,
SET_CONF_RET_ERR_TOO_LONG = -6
} SET_CONF_RET_CODE;
#define RET_MSG_LENGTH 1024
typedef struct setConfRet {
SET_CONF_RET_CODE retCode;
char retMsg[RET_MSG_LENGTH];
} setConfRet;
DLL_EXPORT void taos_cleanup(void);
DLL_EXPORT int taos_options(TSDB_OPTION option, const void *arg, ...);
DLL_EXPORT setConfRet taos_set_config(const char *config);
DLL_EXPORT TAOS *taos_connect(const char *ip, const char *user, const char *pass, const char *db, uint16_t port);
DLL_EXPORT TAOS *taos_connect_l(const char *ip, int ipLen, const char *user, int userLen, const char *pass, int passLen,
const char *db, int dbLen, uint16_t port);
......@@ -168,10 +185,13 @@ DLL_EXPORT int taos_select_db(TAOS *taos, const char *db);
DLL_EXPORT int taos_print_row(char *str, TAOS_ROW row, TAOS_FIELD *fields, int num_fields);
DLL_EXPORT void taos_stop_query(TAOS_RES *res);
DLL_EXPORT bool taos_is_null(TAOS_RES *res, int32_t row, int32_t col);
DLL_EXPORT bool taos_is_update_query(TAOS_RES *res);
DLL_EXPORT int taos_fetch_block(TAOS_RES *res, TAOS_ROW *rows);
DLL_EXPORT int taos_validate_sql(TAOS *taos, const char *sql);
DLL_EXPORT void taos_reset_current_db(TAOS *taos);
DLL_EXPORT int *taos_fetch_lengths(TAOS_RES *res);
DLL_EXPORT TAOS_ROW *taos_result_block(TAOS_RES *res);
DLL_EXPORT const char *taos_get_server_info(TAOS *taos);
DLL_EXPORT const char *taos_get_client_info();
......
......@@ -133,7 +133,8 @@ static FORCE_INLINE int32_t colDataAppendInt32(SColumnInfoData* pColumnInfoData,
}
static FORCE_INLINE int32_t colDataAppendInt64(SColumnInfoData* pColumnInfoData, uint32_t currentRow, int64_t* v) {
ASSERT(pColumnInfoData->info.type == TSDB_DATA_TYPE_BIGINT || pColumnInfoData->info.type == TSDB_DATA_TYPE_UBIGINT);
int32_t type = pColumnInfoData->info.type;
ASSERT(type == TSDB_DATA_TYPE_BIGINT || type == TSDB_DATA_TYPE_UBIGINT || type == TSDB_DATA_TYPE_TIMESTAMP);
char* p = pColumnInfoData->pData + pColumnInfoData->info.bytes * currentRow;
*(int64_t*)p = *(int64_t*)v;
}
......@@ -175,17 +176,16 @@ size_t blockDataGetRowSize(SSDataBlock* pBlock);
double blockDataGetSerialRowSize(const SSDataBlock* pBlock);
size_t blockDataGetSerialMetaSize(const SSDataBlock* pBlock);
SSchema* blockDataExtractSchema(const SSDataBlock* pBlock, int32_t* numOfCols);
int32_t blockDataSort(SSDataBlock* pDataBlock, SArray* pOrderInfo);
int32_t blockDataSort_rv(SSDataBlock* pDataBlock, SArray* pOrderInfo, bool nullFirst);
int32_t blockDataEnsureColumnCapacity(SColumnInfoData* pColumn, uint32_t numOfRows);
int32_t blockDataEnsureCapacity(SSDataBlock* pDataBlock, uint32_t numOfRows);
void blockDataCleanup(SSDataBlock* pDataBlock);
int32_t blockDataEnsureColumnCapacity(SColumnInfoData* pColumn, uint32_t numOfRows);
int32_t blockDataEnsureCapacity(SSDataBlock* pDataBlock, uint32_t numOfRows);
void blockDataCleanup(SSDataBlock* pDataBlock);
size_t blockDataGetCapacityInRow(const SSDataBlock* pBlock, size_t pageSize);
void* blockDataDestroy(SSDataBlock* pBlock);
SSDataBlock* createOneDataBlock(const SSDataBlock* pDataBlock);
size_t blockDataGetCapacityInRow(const SSDataBlock* pBlock, size_t pageSize);
void* blockDataDestroy(SSDataBlock* pBlock);
void blockDebugShowData(const SArray* dataBlocks);
......
......@@ -51,7 +51,7 @@ extern int32_t tsCompatibleModel;
extern bool tsEnableSlaveQuery;
extern bool tsPrintAuth;
extern int64_t tsTickPerDay[3];
extern int32_t tsMultiProcess;
extern bool tsMultiProcess;
// monitor
extern bool tsEnableMonitor;
......
......@@ -469,8 +469,7 @@ typedef struct {
int32_t tz; // query client timezone
char intervalUnit;
char slidingUnit;
char
offsetUnit; // TODO Remove it, the offset is the number of precision tickle, and it must be a immutable duration.
char offsetUnit; // TODO Remove it, the offset is the number of precision tickle, and it must be a immutable duration.
int8_t precision;
int64_t interval;
int64_t sliding;
......@@ -2017,7 +2016,6 @@ typedef struct {
int8_t slidingUnit; // MACRO: TIME_UNIT_XXX
int8_t timezoneInt; // sma data expired if timezone changes.
char indexName[TSDB_INDEX_NAME_LEN];
char timezone[TD_TIMEZONE_LEN];
int32_t exprLen;
int32_t tagsFilterLen;
int64_t indexUid;
......@@ -2055,32 +2053,6 @@ void* tDeserializeSVCreateTSmaReq(void* buf, SVCreateTSmaReq* pReq);
int32_t tSerializeSVDropTSmaReq(void** buf, SVDropTSmaReq* pReq);
void* tDeserializeSVDropTSmaReq(void* buf, SVDropTSmaReq* pReq);
typedef struct {
col_id_t colId;
uint16_t blockSize; // sma data block size
char data[];
} STSmaColData;
typedef struct {
tb_uid_t tableUid; // super/child/normal table uid
int32_t dataLen; // not including head
char data[];
} STSmaTbData;
typedef struct {
int64_t indexUid;
TSKEY skey; // startKey of one interval/sliding window
int64_t interval;
int32_t dataLen; // not including head
int8_t intervalUnit;
char data[];
} STSmaDataWrapper; // sma data for a interval/sliding window
// interval/sliding => window
// => window->table->colId
// => 当一个window下所有的表均计算完成时,流计算告知tsdb清除window的过期标记
// RSma: Rollup SMA
typedef struct {
int64_t interval;
......
......@@ -937,9 +937,8 @@ static FORCE_INLINE bool tdSTSRowIterNext(STSRowIter *pIter, col_id_t colId, col
STColumn *pCol = NULL;
STSchema *pSchema = pIter->pSchema;
while (pIter->colIdx <= pSchema->numOfCols) {
pCol = &pSchema->columns[pIter->colIdx];
pCol = &pSchema->columns[pIter->colIdx]; // 1st column of schema is primary TS key
if (colId == pCol->colId) {
++pIter->colIdx;
break;
} else if (colId < pCol->colId) {
++pIter->colIdx;
......@@ -948,7 +947,8 @@ static FORCE_INLINE bool tdSTSRowIterNext(STSRowIter *pIter, col_id_t colId, col
return false;
}
}
return tdGetTpRowDataOfCol(pIter, pCol->type, pCol->offset - sizeof(TSKEY), pVal);
tdGetTpRowDataOfCol(pIter, pCol->type, pCol->offset - sizeof(TSKEY), pVal);
++pIter->colIdx;
} else if (TD_IS_KV_ROW(pIter->pRow)) {
return tdGetKvRowValOfColEx(pIter, colId, colType, &pIter->kvIdx, pVal);
} else {
......
......@@ -138,55 +138,59 @@
#define TK_INTERVAL 120
#define TK_TOPIC 121
#define TK_AS 122
#define TK_NK_BOOL 123
#define TK_NULL 124
#define TK_NK_VARIABLE 125
#define TK_NK_UNDERLINE 126
#define TK_ROWTS 127
#define TK_TBNAME 128
#define TK_QSTARTTS 129
#define TK_QENDTS 130
#define TK_WSTARTTS 131
#define TK_WENDTS 132
#define TK_WDURATION 133
#define TK_BETWEEN 134
#define TK_IS 135
#define TK_NK_LT 136
#define TK_NK_GT 137
#define TK_NK_LE 138
#define TK_NK_GE 139
#define TK_NK_NE 140
#define TK_MATCH 141
#define TK_NMATCH 142
#define TK_IN 143
#define TK_JOIN 144
#define TK_INNER 145
#define TK_SELECT 146
#define TK_DISTINCT 147
#define TK_WHERE 148
#define TK_PARTITION 149
#define TK_BY 150
#define TK_SESSION 151
#define TK_STATE_WINDOW 152
#define TK_SLIDING 153
#define TK_FILL 154
#define TK_VALUE 155
#define TK_NONE 156
#define TK_PREV 157
#define TK_LINEAR 158
#define TK_NEXT 159
#define TK_GROUP 160
#define TK_HAVING 161
#define TK_ORDER 162
#define TK_SLIMIT 163
#define TK_SOFFSET 164
#define TK_LIMIT 165
#define TK_OFFSET 166
#define TK_ASC 167
#define TK_DESC 168
#define TK_NULLS 169
#define TK_FIRST 170
#define TK_LAST 171
#define TK_EXPLAIN 123
#define TK_ANALYZE 124
#define TK_VERBOSE 125
#define TK_NK_BOOL 126
#define TK_RATIO 127
#define TK_NULL 128
#define TK_NK_VARIABLE 129
#define TK_NK_UNDERLINE 130
#define TK_ROWTS 131
#define TK_TBNAME 132
#define TK_QSTARTTS 133
#define TK_QENDTS 134
#define TK_WSTARTTS 135
#define TK_WENDTS 136
#define TK_WDURATION 137
#define TK_BETWEEN 138
#define TK_IS 139
#define TK_NK_LT 140
#define TK_NK_GT 141
#define TK_NK_LE 142
#define TK_NK_GE 143
#define TK_NK_NE 144
#define TK_MATCH 145
#define TK_NMATCH 146
#define TK_IN 147
#define TK_JOIN 148
#define TK_INNER 149
#define TK_SELECT 150
#define TK_DISTINCT 151
#define TK_WHERE 152
#define TK_PARTITION 153
#define TK_BY 154
#define TK_SESSION 155
#define TK_STATE_WINDOW 156
#define TK_SLIDING 157
#define TK_FILL 158
#define TK_VALUE 159
#define TK_NONE 160
#define TK_PREV 161
#define TK_LINEAR 162
#define TK_NEXT 163
#define TK_GROUP 164
#define TK_HAVING 165
#define TK_ORDER 166
#define TK_SLIMIT 167
#define TK_SOFFSET 168
#define TK_LIMIT 169
#define TK_OFFSET 170
#define TK_ASC 171
#define TK_DESC 172
#define TK_NULLS 173
#define TK_FIRST 174
#define TK_LAST 175
#define TK_NK_SPACE 300
#define TK_NK_COMMENT 301
......
......@@ -46,11 +46,12 @@ typedef struct {
char localFqdn[TSDB_FQDN_LEN];
char firstEp[TSDB_EP_LEN];
char secondEp[TSDB_EP_LEN];
SDiskCfg *pDisks;
SDiskCfg *disks;
int32_t numOfDisks;
int8_t ntype;
} SDnodeOpt;
typedef enum { DND_EVENT_START, DND_EVENT_STOP = 1, DND_EVENT_RELOAD } EDndEvent;
typedef enum { DND_EVENT_START, DND_EVENT_STOP = 1, DND_EVENT_CHILD } EDndEvent;
/**
* @brief Initialize and start the dnode.
......
......@@ -37,6 +37,11 @@ typedef struct SReadHandle {
#define STREAM_DATA_TYPE_SUBMIT_BLOCK 0x1
#define STREAM_DATA_TYPE_SSDATA_BLOCK 0x2
typedef enum {
OPTR_EXEC_MODEL_BATCH = 0x1,
OPTR_EXEC_MODEL_STREAM = 0x2,
} EOPTR_EXEC_MODEL;
/**
* Create the exec task for streaming mode
* @param pMsg
......@@ -84,7 +89,7 @@ int32_t qUpdateQualifiedTableId(qTaskInfo_t tinfo, SArray* tableIdList, bool isA
* @return
*/
int32_t qCreateExecTask(SReadHandle* readHandle, int32_t vgId, uint64_t taskId, struct SSubplan* pPlan,
qTaskInfo_t* pTaskInfo, DataSinkHandle* handle);
qTaskInfo_t* pTaskInfo, DataSinkHandle* handle, EOPTR_EXEC_MODEL model);
/**
* The main task execution function, including query on both table and multiple tables,
......
......@@ -41,6 +41,7 @@ typedef void (*FExecFinalize)(struct SqlFunctionCtx *pCtx);
typedef int32_t (*FScalarExecProcess)(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput);
typedef struct SScalarFuncExecFuncs {
FExecGetEnv getEnv;
FScalarExecProcess process;
} SScalarFuncExecFuncs;
......@@ -241,7 +242,6 @@ typedef struct tExprNode {
};
} tExprNode;
void exprTreeToBinary(SBufferWriter* bw, tExprNode* pExprTree);
void tExprTreeDestroy(tExprNode *pNode, void (*fp)(void *));
typedef struct SAggFunctionInfo {
......@@ -267,28 +267,6 @@ struct SScalarParam {
int32_t numOfRows;
};
typedef struct SMultiFunctionsDesc {
bool stableQuery;
bool groupbyColumn;
bool agg;
bool arithmeticOnAgg;
bool projectionQuery;
bool hasFilter;
bool onlyTagQuery;
bool orderProjectQuery;
bool globalMerge;
bool multigroupResult;
bool blockDistribution;
bool stateWindow;
bool timewindow;
bool sessionWindow;
bool topbotQuery;
bool interpQuery;
bool distinct;
bool join;
bool continueQuery;
} SMultiFunctionsDesc;
int32_t getResultDataInfo(int32_t dataType, int32_t dataBytes, int32_t functionId, int32_t param, SResultDataInfo* pInfo, int16_t extLength,
bool isSuperTable);
......@@ -296,8 +274,6 @@ bool qIsValidUdf(SArray* pUdfInfo, const char* name, int32_t len, int32_t* funct
tExprNode* exprTreeFromBinary(const void* data, size_t size);
void extractFunctionDesc(SArray* pFunctionIdList, SMultiFunctionsDesc* pDesc);
tExprNode* exprdup(tExprNode* pTree);
void resetResultRowEntryResult(SqlFunctionCtx* pCtx, int32_t num);
......
......@@ -70,6 +70,7 @@ typedef enum ENodeType {
QUERY_NODE_DATABASE_OPTIONS,
QUERY_NODE_TABLE_OPTIONS,
QUERY_NODE_INDEX_OPTIONS,
QUERY_NODE_EXPLAIN_OPTIONS,
// Statement nodes are used in parser and planner module.
QUERY_NODE_SET_OPERATOR,
......@@ -99,6 +100,7 @@ typedef enum ENodeType {
QUERY_NODE_CREATE_TOPIC_STMT,
QUERY_NODE_DROP_TOPIC_STMT,
QUERY_NODE_ALTER_LOCAL_STMT,
QUERY_NODE_EXPLAIN_STMT,
QUERY_NODE_SHOW_DATABASES_STMT,
QUERY_NODE_SHOW_TABLES_STMT,
QUERY_NODE_SHOW_STABLES_STMT,
......
......@@ -49,6 +49,7 @@ typedef struct SScanLogicNode {
STimeWindow scanRange;
SName tableName;
bool showRewrite;
double ratio;
} SScanLogicNode;
typedef struct SJoinLogicNode {
......@@ -197,7 +198,7 @@ typedef struct STableScanPhysiNode {
SScanPhysiNode scan;
uint8_t scanFlag; // denotes reversed scan of data or not
STimeWindow scanRange;
SNode* pScanConditions;
double ratio;
} STableScanPhysiNode;
typedef STableScanPhysiNode STableSeqScanPhysiNode;
......@@ -252,6 +253,7 @@ typedef struct SIntervalPhysiNode {
int64_t sliding;
int8_t intervalUnit;
int8_t slidingUnit;
uint8_t precision;
SFillNode* pFill;
} SIntervalPhysiNode;
......@@ -297,18 +299,23 @@ typedef struct SSubplan {
SDataSinkNode* pDataSink; // data of the subplan flow into the datasink
} SSubplan;
typedef enum EQueryMode {
QUERY_MODE_NORMAL = 1,
QUERY_MODE_EXPLAIN,
QUERY_MODE_EXPLAIN_AN
} EQueryMode;
typedef enum EExplainMode {
EXPLAIN_MODE_DISABLE = 1,
EXPLAIN_MODE_STATIC,
EXPLAIN_MODE_ANALYZE
} EExplainMode;
typedef struct SExplainInfo {
EExplainMode mode;
bool verbose;
} SExplainInfo;
typedef struct SQueryPlan {
ENodeType type;
uint64_t queryId;
int32_t numOfSubplans;
SNodeList* pSubplans; // Element is SNodeListNode. The execution level of subplan, starting from 0.
SExplainInfo explainInfo;
} SQueryPlan;
#ifdef __cplusplus
......
......@@ -131,6 +131,7 @@ typedef struct SRealTableNode {
struct STableMeta* pMeta;
SVgroupsInfo* pVgroupList;
char useDbName[TSDB_DB_NAME_LEN];
double ratio;
} SRealTableNode;
typedef struct STempTableNode {
......@@ -282,6 +283,19 @@ typedef struct SVnodeModifOpStmt {
const char* sql; // current sql statement position
} SVnodeModifOpStmt;
typedef struct SExplainOptions {
ENodeType type;
bool verbose;
double ratio;
} SExplainOptions;
typedef struct SExplainStmt {
ENodeType type;
bool analyze;
SExplainOptions* pOptions;
SNode* pQuery;
} SExplainStmt;
void nodesWalkSelectStmt(SSelectStmt* pSelect, ESqlClause clause, FNodeWalker walker, void* pContext);
void nodesRewriteSelectStmt(SSelectStmt* pSelect, ESqlClause clause, FNodeRewriter rewriter, void* pContext);
......
......@@ -58,6 +58,14 @@ int32_t ceilFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutp
int32_t floorFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput);
int32_t roundFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput);
bool getTimePseudoFuncEnv(struct SFunctionNode* pFunc, SFuncExecEnv* pEnv);
int32_t winStartTsFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput);
int32_t winEndTsFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput);
int32_t winDurFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput);
int32_t qStartTsFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput);
int32_t qEndTsFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput);
#ifdef __cplusplus
}
#endif
......
......@@ -73,7 +73,6 @@ extern "C" {
#include <wchar.h>
#include <wctype.h>
#include "osAtomic.h"
#include "osDef.h"
#include "osDir.h"
......@@ -83,10 +82,12 @@ extern "C" {
#include "osLz4.h"
#include "osMath.h"
#include "osMemory.h"
#include "osProc.h"
#include "osRand.h"
#include "osThread.h"
#include "osSemaphore.h"
#include "osSignal.h"
#include "osShm.h"
#include "osSleep.h"
#include "osSocket.h"
#include "osString.h"
......
/*
* Copyright (c) 2019 TAOS Data, Inc. <jhtao@taosdata.com>
*
* This program is free software: you can use, redistribute, and/or modify
* it under the terms of the GNU Affero General Public License, version 3
* or later ("AGPL"), as published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful, but WITHOUT
* ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
* FITNESS FOR A PARTICULAR PURPOSE.
*
* You should have received a copy of the GNU Affero General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#ifndef _TD_OS_PROC_H_
#define _TD_OS_PROC_H_
#ifdef __cplusplus
extern "C" {
#endif
// start a copy of itself
int32_t taosNewProc(const char *args);
// the length of the new name must be less than the original name to take effect
void taosSetProcName(char **argv, const char *name);
#ifdef __cplusplus
}
#endif
#endif /*_TD_OS_PROC_H_*/
/*
* Copyright (c) 2019 TAOS Data, Inc. <jhtao@taosdata.com>
*
* This program is free software: you can use, redistribute, and/or modify
* it under the terms of the GNU Affero General Public License, version 3
* or later ("AGPL"), as published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful, but WITHOUT
* ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
* FITNESS FOR A PARTICULAR PURPOSE.
*
* You should have received a copy of the GNU Affero General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#ifndef _TD_OS_SHM_H_
#define _TD_OS_SHM_H_
#ifdef __cplusplus
extern "C" {
#endif
typedef struct {
int32_t id;
int32_t size;
void* ptr;
} SShm;
int32_t taosCreateShm(SShm *pShm, int32_t shmsize) ;
void taosDropShm(SShm *pShm);
int32_t taosAttachShm(SShm *pShm);
#ifdef __cplusplus
}
#endif
#endif /*_TD_OS_SHM_H_*/
......@@ -49,6 +49,8 @@ void taosSetSignal(int32_t signum, FSignalHandler sigfp);
void taosIgnSignal(int32_t signum);
void taosDflSignal(int32_t signum);
void taosKillChildOnSelfStopped();
#ifdef __cplusplus
}
#endif
......
......@@ -32,6 +32,9 @@ typedef pthread_once_t TdThreadOnce;
typedef pthread_rwlockattr_t TdThreadRwlockAttr;
typedef pthread_cond_t TdThreadCond;
typedef pthread_condattr_t TdThreadCondAttr;
typedef pthread_key_t TdThreadKey;
typedef pthread_barrier_t TdThreadBarrier;
typedef pthread_barrierattr_t TdThreadBarrierAttr;
#define taosThreadCleanupPush pthread_cleanup_push
#define taosThreadCleanupPop pthread_cleanup_pop
......@@ -49,68 +52,180 @@ typedef pthread_condattr_t TdThreadCondAttr;
#define pthread_rwlockattr_t PTHREAD_RWLOCKATTR_T_TYPE_TAOS_FORBID
#define pthread_cond_t PTHREAD_COND_T_TYPE_TAOS_FORBID
#define pthread_condattr_t PTHREAD_CONDATTR_T_TYPE_TAOS_FORBID
#define pthread_spin_init PTHREAD_SPIN_INIT_FUNC_TAOS_FORBID
#define pthread_mutex_init PTHREAD_MUTEX_INIT_FUNC_TAOS_FORBID
#define pthread_spin_destroy PTHREAD_SPIN_DESTROY_FUNC_TAOS_FORBID
#define pthread_mutex_destroy PTHREAD_MUTEX_DESTROY_FUNC_TAOS_FORBID
#define pthread_spin_lock PTHREAD_SPIN_LOCK_FUNC_TAOS_FORBID
#define pthread_mutex_lock PTHREAD_MUTEX_LOCK_FUNC_TAOS_FORBID
#define pthread_spin_unlock PTHREAD_SPIN_UNLOCK_FUNC_TAOS_FORBID
#define pthread_mutex_unlock PTHREAD_MUTEX_UNLOCK_FUNC_TAOS_FORBID
#define pthread_rwlock_rdlock PTHREAD_RWLOCK_RDLOCK_FUNC_TAOS_FORBID
#define pthread_rwlock_wrlock PTHREAD_RWLOCK_WRLOCK_FUNC_TAOS_FORBID
#define pthread_rwlock_unlock PTHREAD_RWLOCK_UNLOCK_FUNC_TAOS_FORBID
#define pthread_testcancel PTHREAD_TESTCANCEL_FUNC_TAOS_FORBID
#define pthread_attr_init PTHREAD_ATTR_INIT_FUNC_TAOS_FORBID
#define pthread_key_t PTHREAD_KEY_T_TYPE_TAOS_FORBID
#define pthread_barrier_t PTHREAD_BARRIER_T_TYPE_TAOS_FORBID
#define pthread_barrierattr_t PTHREAD_BARRIERATTR_T_TYPE_TAOS_FORBID
#define pthread_create PTHREAD_CREATE_FUNC_TAOS_FORBID
#define pthread_once PTHREAD_ONCE_FUNC_TAOS_FORBID
#define pthread_attr_setdetachstate PTHREAD_ATTR_SETDETACHSTATE_FUNC_TAOS_FORBID
#define pthread_attr_destroy PTHREAD_ATTR_DESTROY_FUNC_TAOS_FORBID
#define pthread_join PTHREAD_JOIN_FUNC_TAOS_FORBID
#define pthread_rwlock_init PTHREAD_RWLOCK_INIT_FUNC_TAOS_FORBID
#define pthread_rwlock_destroy PTHREAD_RWLOCK_DESTROY_FUNC_TAOS_FORBID
#define pthread_cond_signal PTHREAD_COND_SIGNAL_FUNC_TAOS_FORBID
#define pthread_attr_getdetachstate PTHREAD_ATTR_GETDETACHSTATE_FUNC_TAOS_FORBID
#define pthread_attr_getinheritsched PTHREAD_ATTR_GETINHERITSCHED_FUNC_TAOS_FORBID
#define pthread_attr_getschedparam PTHREAD_ATTR_GETSCHEDPARAM_FUNC_TAOS_FORBID
#define pthread_attr_getschedpolicy PTHREAD_ATTR_GETSCHEDPOLICY_FUNC_TAOS_FORBID
#define pthread_attr_getscope PTHREAD_ATTR_GETSCOPE_FUNC_TAOS_FORBID
#define pthread_attr_getstacksize PTHREAD_ATTR_GETSTACKSIZE_FUNC_TAOS_FORBID
#define pthread_attr_init PTHREAD_ATTR_INIT_FUNC_TAOS_FORBID
#define pthread_attr_setdetachstate PTHREAD_ATTR_SETDETACHSTATE_FUNC_TAOS_FORBID
#define pthread_attr_setinheritsched PTHREAD_ATTR_SETINHERITSCHED_FUNC_TAOS_FORBID
#define pthread_attr_setschedparam PTHREAD_ATTR_SETSCHEDPARAM_FUNC_TAOS_FORBID
#define pthread_attr_setschedpolicy PTHREAD_ATTR_SETSCHEDPOLICY_FUNC_TAOS_FORBID
#define pthread_attr_setscope PTHREAD_ATTR_SETSCOPE_FUNC_TAOS_FORBID
#define pthread_attr_setstacksize PTHREAD_ATTR_SETSTACKSIZE_FUNC_TAOS_FORBID
#define pthread_barrier_destroy PTHREAD_BARRIER_DESTROY_FUNC_TAOS_FORBID
#define pthread_barrier_init PTHREAD_BARRIER_INIT_FUNC_TAOS_FORBID
#define pthread_barrier_wait PTHREAD_BARRIER_WAIT_FUNC_TAOS_FORBID
#define pthread_barrierattr_destroy PTHREAD_BARRIERATTR_DESTROY_FUNC_TAOS_FORBID
#define pthread_barrierattr_getpshared PTHREAD_BARRIERATTR_GETPSHARED_FUNC_TAOS_FORBID
#define pthread_barrierattr_init PTHREAD_BARRIERATTR_INIT_FUNC_TAOS_FORBID
#define pthread_barrierattr_setpshared PTHREAD_BARRIERATTR_SETPSHARED_FUNC_TAOS_FORBID
#define pthread_cancel PTHREAD_CANCEL_FUNC_TAOS_FORBID
#define pthread_cond_destroy PTHREAD_COND_DESTROY_FUNC_TAOS_FORBID
#define pthread_cond_init PTHREAD_COND_INIT_FUNC_TAOS_FORBID
#define pthread_cond_signal PTHREAD_COND_SIGNAL_FUNC_TAOS_FORBID
#define pthread_cond_broadcast PTHREAD_COND_BROADCAST_FUNC_TAOS_FORBID
#define pthread_cond_destroy PTHREAD_COND_DESTROY_FUNC_TAOS_FORBID
#define pthread_cond_wait PTHREAD_COND_WAIT_FUNC_TAOS_FORBID
#define pthread_self PTHREAD_SELF_FUNC_TAOS_FORBID
#define pthread_cond_timedwait PTHREAD_COND_TIMEDWAIT_FUNC_TAOS_FORBID
#define pthread_condattr_destroy PTHREAD_CONDATTR_DESTROY_FUNC_TAOS_FORBID
#define pthread_condattr_getpshared PTHREAD_CONDATTR_GETPSHARED_FUNC_TAOS_FORBID
#define pthread_condattr_init PTHREAD_CONDATTR_INIT_FUNC_TAOS_FORBID
#define pthread_condattr_setpshared PTHREAD_CONDATTR_SETPSHARED_FUNC_TAOS_FORBID
#define pthread_detach PTHREAD_DETACH_FUNC_TAOS_FORBID
#define pthread_equal PTHREAD_EQUAL_FUNC_TAOS_FORBID
#define pthread_sigmask PTHREAD_SIGMASK_FUNC_TAOS_FORBID
#define pthread_cancel PTHREAD_CANCEL_FUNC_TAOS_FORBID
#define pthread_exit PTHREAD_EXIT_FUNC_TAOS_FORBID
#define pthread_getschedparam PTHREAD_GETSCHEDPARAM_FUNC_TAOS_FORBID
#define pthread_getspecific PTHREAD_GETSPECIFIC_FUNC_TAOS_FORBID
#define pthread_join PTHREAD_JOIN_FUNC_TAOS_FORBID
#define pthread_key_create PTHREAD_KEY_CREATE_FUNC_TAOS_FORBID
#define pthread_key_delete PTHREAD_KEY_DELETE_FUNC_TAOS_FORBID
#define pthread_kill PTHREAD_KILL_FUNC_TAOS_FORBID
#define pthread_mutex_consistent PTHREAD_MUTEX_CONSISTENT_FUNC_TAOS_FORBID
#define pthread_mutex_destroy PTHREAD_MUTEX_DESTROY_FUNC_TAOS_FORBID
#define pthread_mutex_init PTHREAD_MUTEX_INIT_FUNC_TAOS_FORBID
#define pthread_mutex_lock PTHREAD_MUTEX_LOCK_FUNC_TAOS_FORBID
#define pthread_mutex_timedlock PTHREAD_MUTEX_TIMEDLOCK_FUNC_TAOS_FORBID
#define pthread_mutex_trylock PTHREAD_MUTEX_TRYLOCK_FUNC_TAOS_FORBID
#define pthread_mutex_unlock PTHREAD_MUTEX_UNLOCK_FUNC_TAOS_FORBID
#define pthread_mutexattr_destroy PTHREAD_MUTEXATTR_DESTROY_FUNC_TAOS_FORBID
#define pthread_mutexattr_getpshared PTHREAD_MUTEXATTR_GETPSHARED_FUNC_TAOS_FORBID
#define pthread_mutexattr_getrobust PTHREAD_MUTEXATTR_GETROBUST_FUNC_TAOS_FORBID
#define pthread_mutexattr_gettype PTHREAD_MUTEXATTR_GETTYPE_FUNC_TAOS_FORBID
#define pthread_mutexattr_init PTHREAD_MUTEXATTR_INIT_FUNC_TAOS_FORBID
#define pthread_mutexattr_setpshared PTHREAD_MUTEXATTR_SETPSHARED_FUNC_TAOS_FORBID
#define pthread_mutexattr_setrobust PTHREAD_MUTEXATTR_SETROBUST_FUNC_TAOS_FORBID
#define pthread_mutexattr_settype PTHREAD_MUTEXATTR_SETTYPE_FUNC_TAOS_FORBID
#define pthread_once PTHREAD_ONCE_FUNC_TAOS_FORBID
#define pthread_rwlock_destroy PTHREAD_RWLOCK_DESTROY_FUNC_TAOS_FORBID
#define pthread_rwlock_init PTHREAD_RWLOCK_INIT_FUNC_TAOS_FORBID
#define pthread_rwlock_rdlock PTHREAD_RWLOCK_RDLOCK_FUNC_TAOS_FORBID
#define pthread_rwlock_timedrdlock PTHREAD_RWLOCK_TIMEDRDLOCK_FUNC_TAOS_FORBID
#define pthread_rwlock_timedwrlock PTHREAD_RWLOCK_TIMEDWRLOCK_FUNC_TAOS_FORBID
#define pthread_rwlock_tryrdlock PTHREAD_RWLOCK_TRYRDLOCK_FUNC_TAOS_FORBID
#define pthread_rwlock_trywrlock PTHREAD_RWLOCK_TRYWRLOCK_FUNC_TAOS_FORBID
#define pthread_rwlock_unlock PTHREAD_RWLOCK_UNLOCK_FUNC_TAOS_FORBID
#define pthread_rwlock_wrlock PTHREAD_RWLOCK_WRLOCK_FUNC_TAOS_FORBID
#define pthread_rwlockattr_destroy PTHREAD_RWLOCKATTR_DESTROY_FUNC_TAOS_FORBID
#define pthread_rwlockattr_getpshared PTHREAD_RWLOCKATTR_GETPSHARED_FUNC_TAOS_FORBID
#define pthread_rwlockattr_init PTHREAD_RWLOCKATTR_INIT_FUNC_TAOS_FORBID
#define pthread_rwlockattr_setpshared PTHREAD_RWLOCKATTR_SETPSHARED_FUNC_TAOS_FORBID
#define pthread_self PTHREAD_SELF_FUNC_TAOS_FORBID
#define pthread_setcancelstate PTHREAD_SETCANCELSTATE_FUNC_TAOS_FORBID
#define pthread_setcanceltype PTHREAD_SETCANCELTYPE_FUNC_TAOS_FORBID
#define pthread_setschedparam PTHREAD_SETSCHEDPARAM_FUNC_TAOS_FORBID
#define pthread_setspecific PTHREAD_SETSPECIFIC_FUNC_TAOS_FORBID
#define pthread_spin_destroy PTHREAD_SPIN_DESTROY_FUNC_TAOS_FORBID
#define pthread_spin_init PTHREAD_SPIN_INIT_FUNC_TAOS_FORBID
#define pthread_spin_lock PTHREAD_SPIN_LOCK_FUNC_TAOS_FORBID
#define pthread_spin_trylock PTHREAD_SPIN_TRYLOCK_FUNC_TAOS_FORBID
#define pthread_spin_unlock PTHREAD_SPIN_UNLOCK_FUNC_TAOS_FORBID
#define pthread_testcancel PTHREAD_TESTCANCEL_FUNC_TAOS_FORBID
#define pthread_sigmask PTHREAD_SIGMASK_FUNC_TAOS_FORBID
#define sigwait SIGWAIT_FUNC_TAOS_FORBID
#endif
int32_t taosThreadSpinInit(TdThreadSpinlock *lock, int pshared);
int32_t taosThreadMutexInit(TdThreadMutex *mutex, const TdThreadMutexAttr *attr);
int32_t taosThreadSpinDestroy(TdThreadSpinlock *lock);
int32_t taosThreadCreate(TdThread * tid, const TdThreadAttr * attr, void *(*start)(void *), void *arg);
int32_t taosThreadAttrDestroy(TdThreadAttr * attr);
int32_t taosThreadAttrGetDetachState(const TdThreadAttr * attr, int32_t *detachstate);
int32_t taosThreadAttrGetInheritSched(const TdThreadAttr * attr, int32_t *inheritsched);
int32_t taosThreadAttrGetSchedParam(const TdThreadAttr * attr, struct sched_param *param);
int32_t taosThreadAttrGetSchedPolicy(const TdThreadAttr * attr, int32_t *policy);
int32_t taosThreadAttrGetScope(const TdThreadAttr * attr, int32_t *contentionscope);
int32_t taosThreadAttrGetStackSize(const TdThreadAttr * attr, size_t * stacksize);
int32_t taosThreadAttrInit(TdThreadAttr * attr);
int32_t taosThreadAttrSetDetachState(TdThreadAttr * attr, int32_t detachstate);
int32_t taosThreadAttrSetInheritSched(TdThreadAttr * attr, int32_t inheritsched);
int32_t taosThreadAttrSetSchedParam(TdThreadAttr * attr, const struct sched_param *param);
int32_t taosThreadAttrSetSchedPolicy(TdThreadAttr * attr, int32_t policy);
int32_t taosThreadAttrSetScope(TdThreadAttr * attr, int32_t contentionscope);
int32_t taosThreadAttrSetStackSize(TdThreadAttr * attr, size_t stacksize);
int32_t taosThreadBarrierDestroy(TdThreadBarrier * barrier);
int32_t taosThreadBarrierInit(TdThreadBarrier * barrier, const TdThreadBarrierAttr * attr, uint32_t count);
int32_t taosThreadBarrierWait(TdThreadBarrier * barrier);
int32_t taosThreadBarrierAttrDestroy(TdThreadBarrierAttr * attr);
int32_t taosThreadBarrierAttrGetPshared(const TdThreadBarrierAttr * attr, int32_t *pshared);
int32_t taosThreadBarrierAttrInit(TdThreadBarrierAttr * attr);
int32_t taosThreadBarrierAttrSetPshared(TdThreadBarrierAttr * attr, int32_t pshared);
int32_t taosThreadCancel(TdThread thread);
int32_t taosThreadCondDestroy(TdThreadCond * cond);
int32_t taosThreadCondInit(TdThreadCond * cond, const TdThreadCondAttr * attr);
int32_t taosThreadCondSignal(TdThreadCond * cond);
int32_t taosThreadCondBroadcast(TdThreadCond * cond);
int32_t taosThreadCondWait(TdThreadCond * cond, TdThreadMutex * mutex);
int32_t taosThreadCondTimedWait(TdThreadCond * cond, TdThreadMutex * mutex, const struct timespec *abstime);
int32_t taosThreadCondAttrDestroy(TdThreadCondAttr * attr);
int32_t taosThreadCondAttrGetPshared(const TdThreadCondAttr * attr, int32_t *pshared);
int32_t taosThreadCondAttrInit(TdThreadCondAttr * attr);
int32_t taosThreadCondAttrSetPshared(TdThreadCondAttr * attr, int32_t pshared);
int32_t taosThreadDetach(TdThread thread);
int32_t taosThreadEqual(TdThread t1, TdThread t2);
void taosThreadExit(void *valuePtr);
int32_t taosThreadGetSchedParam(TdThread thread, int32_t *policy, struct sched_param *param);
void *taosThreadGetSpecific(TdThreadKey key);
int32_t taosThreadJoin(TdThread thread, void **valuePtr);
int32_t taosThreadKeyCreate(TdThreadKey * key, void(*destructor)(void *));
int32_t taosThreadKeyDelete(TdThreadKey key);
int32_t taosThreadKill(TdThread thread, int32_t sig);
int32_t taosThreadMutexConsistent(TdThreadMutex* mutex);
int32_t taosThreadMutexDestroy(TdThreadMutex * mutex);
int32_t taosThreadSpinLock(TdThreadSpinlock *lock);
int32_t taosThreadMutexLock(TdThreadMutex *mutex);
int32_t taosThreadRwlockRdlock(TdThreadRwlock *rwlock);
int32_t taosThreadSpinUnlock(TdThreadSpinlock *lock);
int32_t taosThreadMutexUnlock(TdThreadMutex *mutex);
int32_t taosThreadRwlockWrlock(TdThreadRwlock *rwlock);
int32_t taosThreadRwlockUnlock(TdThreadRwlock *rwlock);
void taosThreadTestCancel(void);
int32_t taosThreadAttrInit(TdThreadAttr *attr);
int32_t taosThreadCreate(TdThread *tid, const TdThreadAttr *attr, void*(*start)(void*), void *arg);
int32_t taosThreadOnce(TdThreadOnce *onceControl, void(*initRoutine)(void));
int32_t taosThreadAttrSetDetachState(TdThreadAttr *attr, int32_t detachState);
int32_t taosThreadAttrDestroy(TdThreadAttr *attr);
int32_t taosThreadJoin(TdThread thread, void **pValue);
int32_t taosThreadRwlockInit(TdThreadRwlock *rwlock, const TdThreadRwlockAttr *attr);
int32_t taosThreadRwlockDestroy(TdThreadRwlock *rwlock);
int32_t taosThreadCondSignal(TdThreadCond *cond);
int32_t taosThreadCondInit(TdThreadCond *cond, const TdThreadCondAttr *attr);
int32_t taosThreadCondBroadcast(TdThreadCond *cond);
int32_t taosThreadCondDestroy(TdThreadCond *cond);
int32_t taosThreadCondWait(TdThreadCond *cond, TdThreadMutex *mutex);
int32_t taosThreadMutexInit(TdThreadMutex * mutex, const TdThreadMutexAttr * attr);
int32_t taosThreadMutexLock(TdThreadMutex * mutex);
int32_t taosThreadMutexTimedLock(TdThreadMutex * mutex, const struct timespec *abstime);
int32_t taosThreadMutexTryLock(TdThreadMutex * mutex);
int32_t taosThreadMutexUnlock(TdThreadMutex * mutex);
int32_t taosThreadMutexAttrDestroy(TdThreadMutexAttr * attr);
int32_t taosThreadMutexAttrGetPshared(const TdThreadMutexAttr * attr, int32_t *pshared);
int32_t taosThreadMutexAttrGetRobust(const TdThreadMutexAttr * attr, int32_t * robust);
int32_t taosThreadMutexAttrGetType(const TdThreadMutexAttr * attr, int32_t *kind);
int32_t taosThreadMutexAttrInit(TdThreadMutexAttr * attr);
int32_t taosThreadMutexAttrSetPshared(TdThreadMutexAttr * attr, int32_t pshared);
int32_t taosThreadMutexAttrSetRobust(TdThreadMutexAttr * attr, int32_t robust);
int32_t taosThreadMutexAttrSetType(TdThreadMutexAttr * attr, int32_t kind);
int32_t taosThreadOnce(TdThreadOnce * onceControl, void(*initRoutine)(void));
int32_t taosThreadRwlockDestroy(TdThreadRwlock * rwlock);
int32_t taosThreadRwlockInit(TdThreadRwlock * rwlock, const TdThreadRwlockAttr * attr);
int32_t taosThreadRwlockRdlock(TdThreadRwlock * rwlock);
int32_t taosThreadRwlockTimedRdlock(TdThreadRwlock * rwlock, const struct timespec *abstime);
int32_t taosThreadRwlockTimedWrlock(TdThreadRwlock * rwlock, const struct timespec *abstime);
int32_t taosThreadRwlockTryRdlock(TdThreadRwlock * rwlock);
int32_t taosThreadRwlockTryWrlock(TdThreadRwlock * rwlock);
int32_t taosThreadRwlockUnlock(TdThreadRwlock * rwlock);
int32_t taosThreadRwlockWrlock(TdThreadRwlock * rwlock);
int32_t taosThreadRwlockAttrDestroy(TdThreadRwlockAttr * attr);
int32_t taosThreadRwlockAttrGetPshared(const TdThreadRwlockAttr * attr, int32_t *pshared);
int32_t taosThreadRwlockAttrInit(TdThreadRwlockAttr * attr);
int32_t taosThreadRwlockAttrSetPshared(TdThreadRwlockAttr * attr, int32_t pshared);
TdThread taosThreadSelf(void);
int32_t taosThreadEqual(TdThread t1, TdThread t2);
int32_t taosThreadSigmask(int how, sigset_t const *set, sigset_t *oset);
int32_t taosThreadCancel(TdThread thread);
int32_t taosThreadKill(TdThread thread, int sig);
int32_t taosThreadSetCancelState(int32_t state, int32_t *oldstate);
int32_t taosThreadSetCancelType(int32_t type, int32_t *oldtype);
int32_t taosThreadSetSchedParam(TdThread thread, int32_t policy, const struct sched_param *param);
int32_t taosThreadSetSpecific(TdThreadKey key, const void *value);
int32_t taosThreadSpinDestroy(TdThreadSpinlock * lock);
int32_t taosThreadSpinInit(TdThreadSpinlock * lock, int32_t pshared);
int32_t taosThreadSpinLock(TdThreadSpinlock * lock);
int32_t taosThreadSpinTrylock(TdThreadSpinlock * lock);
int32_t taosThreadSpinUnlock(TdThreadSpinlock * lock);
void taosThreadTestCancel(void);
int32_t taosThreadSigMask(int32_t how, sigset_t const *set, sigset_t * oset);
int32_t taosThreadSigWait(const sigset_t * set, int32_t *sig);
#ifdef __cplusplus
}
#endif
......
......@@ -20,6 +20,8 @@
extern "C" {
#endif
#include <time.h>
// If the error is in a third-party library, place this header file under the third-party library header file.
// When you want to use this feature, you should find or add the same function in the following section.
#ifndef ALLOW_FORBID_FUNC
......
......@@ -78,6 +78,7 @@ int32_t* taosGetErrno();
#define TSDB_CODE_CFG_NOT_FOUND TAOS_DEF_ERROR_CODE(0, 0x010C)
#define TSDB_CODE_INVALID_CFG TAOS_DEF_ERROR_CODE(0, 0x010D)
#define TSDB_CODE_OUT_OF_SHM_MEM TAOS_DEF_ERROR_CODE(0, 0x010E)
#define TSDB_CODE_INVALID_SHM_ID TAOS_DEF_ERROR_CODE(0, 0x010F)
#define TSDB_CODE_REF_NO_MEMORY TAOS_DEF_ERROR_CODE(0, 0x0110)
#define TSDB_CODE_REF_FULL TAOS_DEF_ERROR_CODE(0, 0x0111)
#define TSDB_CODE_REF_ID_REMOVED TAOS_DEF_ERROR_CODE(0, 0x0112)
......
......@@ -381,6 +381,14 @@ typedef enum ELogicConditionType {
#define TSDB_MAX_DB_DELAY 10
#define TSDB_DEFAULT_DB_DELAY 2
#define TSDB_DEFAULT_EXPLAIN_VERBOSE false
#define TSDB_MIN_EXPLAIN_RATIO 0
#define TSDB_MAX_EXPLAIN_RATIO 1
#define TSDB_DEFAULT_EXPLAIN_RATIO 0.001
#define TSDB_EXPLAIN_RESULT_ROW_SIZE 1024
#define TSDB_MAX_JOIN_TABLE_NUM 10
#define TSDB_MAX_UNION_CLAUSE 5
......
......@@ -32,29 +32,25 @@ typedef void *(*ProcConsumeFp)(void *pParent, void *pHead, int16_t headLen, void
ProcFuncType ftype);
typedef struct {
int32_t childQueueSize;
ProcConsumeFp childConsumeFp;
ProcMallocFp childMallocHeadFp;
ProcFreeFp childFreeHeadFp;
ProcMallocFp childMallocBodyFp;
ProcFreeFp childFreeBodyFp;
int32_t parentQueueSize;
ProcConsumeFp parentConsumeFp;
ProcMallocFp parentdMallocHeadFp;
ProcMallocFp parentMallocHeadFp;
ProcFreeFp parentFreeHeadFp;
ProcMallocFp parentMallocBodyFp;
ProcFreeFp parentFreeBodyFp;
bool testFlag;
SShm shm;
void *pParent;
const char *name;
bool isChild;
} SProcCfg;
SProcObj *taosProcInit(const SProcCfg *pCfg);
void taosProcCleanup(SProcObj *pProc);
int32_t taosProcRun(SProcObj *pProc);
void taosProcStop(SProcObj *pProc);
bool taosProcIsChild(SProcObj *pProc);
int32_t taosProcChildId(SProcObj *pProc);
int32_t taosProcPutToChildQ(SProcObj *pProc, const void *pHead, int16_t headLen, const void *pBody, int32_t bodyLen,
ProcFuncType ftype);
int32_t taosProcPutToParentQ(SProcObj *pProc, const void *pHead, int16_t headLen, const void *pBody, int32_t bodyLen,
......
......@@ -200,6 +200,9 @@ static void doDestroyRequest(void *p) {
taosArrayDestroy(pRequest->body.showInfo.pArray);
}
taosArrayDestroy(pRequest->tableList);
taosArrayDestroy(pRequest->dbList);
deregisterRequest(pRequest);
taosMemoryFreeClear(pRequest);
}
......
......@@ -71,6 +71,12 @@ void taos_cleanup(void) {
tscInfo("all local resources released");
}
setConfRet taos_set_config(const char *config) {
// TODO
setConfRet ret = {SET_CONF_RET_SUCC, {0}};
return ret;
}
TAOS *taos_connect(const char *ip, const char *user, const char *pass, const char *db, uint16_t port) {
tscDebug("try to connect to %s:%u, user:%s db:%s", ip, port, user, db);
if (user == NULL) {
......@@ -257,6 +263,11 @@ int *taos_fetch_lengths(TAOS_RES *res) {
return ((SRequestObj *)res)->body.resInfo.length;
}
TAOS_ROW *taos_result_block(TAOS_RES *res) {
// TODO
return NULL;
}
// todo intergrate with tDataTypes
const char *taos_data_type(int type) {
switch (type) {
......@@ -353,6 +364,11 @@ bool taos_is_null(TAOS_RES *res, int32_t row, int32_t col) {
return colDataIsNull_f(pCol->nullbitmap, row);
}
bool taos_is_update_query(TAOS_RES *res) {
// TODO
return true;
}
int taos_fetch_block(TAOS_RES *res, TAOS_ROW *rows) {
if (res == NULL) {
return 0;
......@@ -376,6 +392,11 @@ int taos_fetch_block(TAOS_RES *res, TAOS_ROW *rows) {
int taos_validate_sql(TAOS *taos, const char *sql) { return true; }
void taos_reset_current_db(TAOS *taos) {
// TODO
return;
}
const char *taos_get_server_info(TAOS *taos) {
if (taos == NULL) {
return NULL;
......
......@@ -241,6 +241,10 @@ void tmq_list_destroy(tmq_list_t* list) {
taosArrayDestroyEx(container, (void (*)(void*))taosMemoryFree);
}
static int32_t tmqMakeTopicVgKey(char* dst, const char* topicName, int32_t vg) {
return sprintf(dst, "%s:%d", topicName, vg);
}
void tmqClearUnhandleMsg(tmq_t* tmq) {
tmq_message_t* msg = NULL;
while (1) {
......@@ -827,7 +831,7 @@ int32_t tmqPollCb(void* param, const SDataBuf* pMsg, int32_t code) {
SMqClientVg* pVg = pParam->pVg;
tmq_t* tmq = pParam->tmq;
if (code != 0) {
printf("msg discard, code:%x\n", code);
tscWarn("msg discard, code:%x", code);
goto WRITE_QUEUE_FAIL;
}
......@@ -835,12 +839,12 @@ int32_t tmqPollCb(void* param, const SDataBuf* pMsg, int32_t code) {
int32_t tmqEpoch = atomic_load_32(&tmq->epoch);
if (msgEpoch < tmqEpoch) {
tsem_post(&tmq->rspSem);
printf("discard rsp epoch %d, current epoch %d\n", msgEpoch, tmqEpoch);
tscWarn("discard rsp epoch %d, current epoch %d", msgEpoch, tmqEpoch);
return 0;
}
if (msgEpoch != tmqEpoch) {
printf("mismatch rsp epoch %d, current epoch %d\n", msgEpoch, tmqEpoch);
tscWarn("mismatch rsp epoch %d, current epoch %d", msgEpoch, tmqEpoch);
} else {
atomic_sub_fetch_32(&tmq->waitingRequest, 1);
}
......@@ -899,19 +903,54 @@ WRITE_QUEUE_FAIL:
bool tmqUpdateEp(tmq_t* tmq, int32_t epoch, SMqCMGetSubEpRsp* pRsp) {
/*printf("call update ep %d\n", epoch);*/
bool set = false;
int32_t sz = taosArrayGetSize(pRsp->topics);
SArray* newTopics = taosArrayInit(sz, sizeof(SMqClientTopic));
for (int32_t i = 0; i < sz; i++) {
int32_t topicNumGet = taosArrayGetSize(pRsp->topics);
char vgKey[TSDB_TOPIC_FNAME_LEN + 22];
SArray* newTopics = taosArrayInit(topicNumGet, sizeof(SMqClientTopic));
if (newTopics == NULL) {
return false;
}
SHashObj* pHash = taosHashInit(64, MurmurHash3_32, false, HASH_NO_LOCK);
if (pHash == NULL) {
taosArrayDestroy(newTopics);
return false;
}
// find topic, build hash
for (int32_t i = 0; i < topicNumGet; i++) {
SMqClientTopic topic = {0};
SMqSubTopicEp* pTopicEp = taosArrayGet(pRsp->topics, i);
taosHashClear(pHash);
topic.topicName = strdup(pTopicEp->topic);
int32_t vgSz = taosArrayGetSize(pTopicEp->vgs);
topic.vgs = taosArrayInit(vgSz, sizeof(SMqClientVg));
for (int32_t j = 0; j < vgSz; j++) {
int32_t topicNumCur = taosArrayGetSize(tmq->clientTopics);
for (int32_t j = 0; j < topicNumCur; j++) {
// find old topic
SMqClientTopic* pTopicCur = taosArrayGet(tmq->clientTopics, j);
if (pTopicCur->vgs && strcmp(pTopicCur->topicName, pTopicEp->topic) == 0) {
int32_t vgNumCur = taosArrayGetSize(pTopicCur->vgs);
if (vgNumCur == 0) break;
for (int32_t k = 0; k < vgNumCur; k++) {
SMqClientVg* pVgCur = taosArrayGet(pTopicCur->vgs, k);
sprintf(vgKey, "%s:%d", topic.topicName, pVgCur->vgId);
taosHashPut(pHash, vgKey, strlen(vgKey), &pVgCur->currentOffset, sizeof(int64_t));
}
break;
}
}
int32_t vgNumGet = taosArrayGetSize(pTopicEp->vgs);
topic.vgs = taosArrayInit(vgNumGet, sizeof(SMqClientVg));
for (int32_t j = 0; j < vgNumGet; j++) {
SMqSubVgEp* pVgEp = taosArrayGet(pTopicEp->vgs, j);
sprintf(vgKey, "%s:%d", topic.topicName, pVgEp->vgId);
int64_t* pOffset = taosHashGet(pHash, vgKey, strlen(vgKey));
int64_t offset = pVgEp->offset;
if (pOffset != NULL) {
offset = *pOffset;
}
SMqClientVg clientVg = {
.pollCnt = 0,
.currentOffset = pVgEp->offset,
.currentOffset = offset,
.vgId = pVgEp->vgId,
.epSet = pVgEp->epSet,
.vgStatus = TMQ_VG_STATUS__IDLE,
......@@ -922,6 +961,7 @@ bool tmqUpdateEp(tmq_t* tmq, int32_t epoch, SMqCMGetSubEpRsp* pRsp) {
taosArrayPush(newTopics, &topic);
}
if (tmq->clientTopics) taosArrayDestroy(tmq->clientTopics);
taosHashCleanup(pHash);
tmq->clientTopics = newTopics;
atomic_store_32(&tmq->epoch, epoch);
return set;
......@@ -931,7 +971,7 @@ int32_t tmqAskEpCb(void* param, const SDataBuf* pMsg, int32_t code) {
SMqAskEpCbParam* pParam = (SMqAskEpCbParam*)param;
tmq_t* tmq = pParam->tmq;
if (code != 0) {
printf("get topic endpoint error, not ready, wait:%d\n", pParam->sync);
tscError("get topic endpoint error, not ready, wait:%d\n", pParam->sync);
goto END;
}
......@@ -1302,6 +1342,7 @@ tmq_message_t* tmq_consumer_poll(tmq_t* tmq, int64_t blocking_time) {
while (1) {
/*printf("cycle\n");*/
tmqAskEp(tmq, false);
tmqPollImpl(tmq, blocking_time);
tsem_wait(&tmq->rspSem);
......
......@@ -331,7 +331,6 @@ int32_t blockDataUpdateTsWindow(SSDataBlock* pDataBlock) {
return 0;
}
ASSERT(pColInfoData->nullbitmap == NULL);
pDataBlock->info.window.skey = *(TSKEY*)colDataGetData(pColInfoData, 0);
pDataBlock->info.window.ekey = *(TSKEY*)colDataGetData(pColInfoData, (pDataBlock->info.rows - 1));
return 0;
......@@ -609,22 +608,6 @@ size_t blockDataGetSerialMetaSize(const SSDataBlock* pBlock) {
return sizeof(int32_t) + pBlock->info.numOfCols * sizeof(int32_t);
}
SSchema* blockDataExtractSchema(const SSDataBlock* pBlock, int32_t* numOfCols) {
SSchema* pSchema = taosMemoryCalloc(pBlock->info.numOfCols, sizeof(SSchema));
for (int32_t i = 0; i < pBlock->info.numOfCols; ++i) {
SColumnInfoData* pColInfoData = taosArrayGet(pBlock->pDataBlock, i);
pSchema[i].bytes = pColInfoData->info.bytes;
pSchema[i].type = pColInfoData->info.type;
pSchema[i].colId = pColInfoData->info.colId;
}
if (numOfCols != NULL) {
*numOfCols = pBlock->info.numOfCols;
}
return pSchema;
}
double blockDataGetSerialRowSize(const SSDataBlock* pBlock) {
ASSERT(pBlock != NULL);
double rowSize = 0;
......
......@@ -45,7 +45,7 @@ float tsRatioOfQueryCores = 1.0f;
int32_t tsMaxBinaryDisplayWidth = 30;
bool tsEnableSlaveQuery = 1;
bool tsPrintAuth = 0;
int32_t tsMultiProcess = 0;
bool tsMultiProcess = 0;
// monitor
bool tsEnableMonitor = 1;
......@@ -347,7 +347,7 @@ static int32_t taosAddServerCfg(SConfig *pCfg) {
if (cfgAddBool(pCfg, "printAuth", tsPrintAuth, 0) != 0) return -1;
if (cfgAddBool(pCfg, "slaveQuery", tsEnableSlaveQuery, 0) != 0) return -1;
if (cfgAddBool(pCfg, "deadLockKillQuery", tsDeadLockKillQuery, 0) != 0) return -1;
if (cfgAddInt32(pCfg, "multiProcess", tsMultiProcess, 0, 2, 0) != 0) return -1;
if (cfgAddBool(pCfg, "multiProcess", tsMultiProcess, 0) != 0) return -1;
if (cfgAddBool(pCfg, "monitor", tsEnableMonitor, 0) != 0) return -1;
if (cfgAddInt32(pCfg, "monitorInterval", tsMonitorInterval, 1, 360000, 0) != 0) return -1;
......@@ -466,7 +466,7 @@ static int32_t taosSetServerCfg(SConfig *pCfg) {
tsPrintAuth = cfgGetItem(pCfg, "printAuth")->bval;
tsEnableSlaveQuery = cfgGetItem(pCfg, "slaveQuery")->bval;
tsDeadLockKillQuery = cfgGetItem(pCfg, "deadLockKillQuery")->bval;
tsMultiProcess = cfgGetItem(pCfg, "multiProcess")->i32;
tsMultiProcess = cfgGetItem(pCfg, "multiProcess")->bval;
tsEnableMonitor = cfgGetItem(pCfg, "monitor")->bval;
tsMonitorInterval = cfgGetItem(pCfg, "monitorInterval")->i32;
......
......@@ -130,7 +130,7 @@ int32_t dmReadFile(SDnodeMgmt *pMgmt) {
}
code = 0;
dInfo("succcessed to read file %s", file);
dDebug("succcessed to read file %s", file);
dmPrintDnodes(pMgmt);
PRASE_DNODE_OVER:
......
......@@ -112,6 +112,16 @@ int32_t dmInit(SMgmtWrapper *pWrapper) {
return -1;
}
if (dndInitServer(pDnode) != 0) {
dError("failed to init trans server since %s", terrstr());
return -1;
}
if (dndInitClient(pDnode) != 0) {
dError("failed to init trans client since %s", terrstr());
return -1;
}
pWrapper->pMgmt = pMgmt;
dInfo("dnode-mgmt is initialized");
return 0;
......@@ -122,6 +132,7 @@ void dmCleanup(SMgmtWrapper *pWrapper) {
if (pMgmt == NULL) return;
dInfo("dnode-mgmt start to clean up");
SDnode *pDnode = pMgmt->pDnode;
dmStopWorker(pMgmt);
taosWLockLatch(&pMgmt->latch);
......@@ -140,6 +151,9 @@ void dmCleanup(SMgmtWrapper *pWrapper) {
taosMemoryFree(pMgmt);
pWrapper->pMgmt = NULL;
dndCleanupServer(pDnode);
dndCleanupClient(pDnode);
dInfo("dnode-mgmt is cleaned up");
}
......
......@@ -29,7 +29,7 @@ static struct {
ENodeType ntype;
} global = {0};
static void dndSigintHandle(int signum, void *info, void *ctx) {
static void dndStopDnode(int signum, void *info, void *ctx) {
dInfo("signal:%d is received", signum);
SDnode *pDnode = atomic_val_compare_exchange_ptr(&global.pDnode, 0, global.pDnode);
if (pDnode != NULL) {
......@@ -37,12 +37,27 @@ static void dndSigintHandle(int signum, void *info, void *ctx) {
}
}
static void dndHandleChild(int signum, void *info, void *ctx) {
dInfo("signal:%d is received", signum);
dndHandleEvent(global.pDnode, DND_EVENT_CHILD);
}
static void dndSetSignalHandle() {
taosSetSignal(SIGTERM, dndSigintHandle);
taosSetSignal(SIGHUP, dndSigintHandle);
taosSetSignal(SIGINT, dndSigintHandle);
taosSetSignal(SIGABRT, dndSigintHandle);
taosSetSignal(SIGBREAK, dndSigintHandle);
taosSetSignal(SIGTERM, dndStopDnode);
taosSetSignal(SIGHUP, dndStopDnode);
taosSetSignal(SIGINT, dndStopDnode);
taosSetSignal(SIGABRT, dndStopDnode);
taosSetSignal(SIGBREAK, dndStopDnode);
if (!tsMultiProcess) {
// Set the single process signal
} else if (global.ntype == DNODE) {
// When the child process exits, the parent process receives a signal
taosSetSignal(SIGCHLD, dndHandleChild);
} else {
// When the parent process exits, the child process will receive the SIGKILL signal
taosKillChildOnSelfStopped();
}
}
static int32_t dndParseArgs(int32_t argc, char const *argv[]) {
......@@ -66,6 +81,10 @@ static int32_t dndParseArgs(int32_t argc, char const *argv[]) {
global.generateGrant = true;
} else if (strcmp(argv[i], "-n") == 0) {
global.ntype = atoi(argv[++i]);
if (global.ntype <= DNODE || global.ntype > NODE_MAX) {
printf("'-n' range is [1-5], default is 0\n");
return -1;
}
} else if (strcmp(argv[i], "-C") == 0) {
global.dumpConfig = true;
} else if (strcmp(argv[i], "-V") == 0) {
......@@ -109,8 +128,9 @@ static SDnodeOpt dndGetOpt() {
option.serverPort = tsServerPort;
tstrncpy(option.localFqdn, tsLocalFqdn, sizeof(option.localFqdn));
snprintf(option.localEp, sizeof(option.localEp), "%s:%u", option.localFqdn, option.serverPort);
option.pDisks = tsDiskCfg;
option.disks = tsDiskCfg;
option.numOfDisks = tsDiskCfgNum;
option.ntype = global.ntype;
return option;
}
......@@ -121,10 +141,9 @@ static int32_t dndInitLog() {
}
static void dndSetProcName(char **argv) {
if (global.ntype != 0) {
if (global.ntype != DNODE) {
const char *name = dndNodeProcStr(global.ntype);
prctl(PR_SET_NAME, name);
strcpy(argv[0], name);
taosSetProcName(argv, name);
}
}
......
......@@ -95,12 +95,14 @@ typedef struct SMgmtWrapper {
bool deployed;
bool required;
EProcType procType;
int32_t procId;
SProcObj *pProc;
SShm shm;
void *pMgmt;
SDnode *pDnode;
NodeMsgFp msgFps[TDMT_MAX];
int32_t msgVgIds[TDMT_MAX]; // Handle the case where the same message type is distributed to qnode or vnode
SMgmtFp fp;
int8_t msgVgIds[TDMT_MAX]; // Handle the case where the same message type is distributed to qnode or vnode
NodeMsgFp msgFps[TDMT_MAX];
} SMgmtWrapper;
typedef struct {
......@@ -119,14 +121,15 @@ typedef struct SDnode {
char *firstEp;
char *secondEp;
char *dataDir;
SDiskCfg *pDisks;
SDiskCfg *disks;
int32_t numOfDisks;
uint16_t serverPort;
bool dropped;
ENodeType ntype;
EDndStatus status;
EDndEvent event;
SStartupReq startup;
TdFilePtr pLockFile;
TdFilePtr lockfile;
STransMgmt trans;
SMgmtWrapper wrappers[NODE_MAX];
} SDnode;
......@@ -135,17 +138,21 @@ const char *dndNodeLogStr(ENodeType ntype);
const char *dndNodeProcStr(ENodeType ntype);
EDndStatus dndGetStatus(SDnode *pDnode);
void dndSetStatus(SDnode *pDnode, EDndStatus stat);
void dndSetMsgHandle(SMgmtWrapper *pWrapper, int32_t msgType, NodeMsgFp nodeMsgFp, int32_t vgId);
void dndSetMsgHandle(SMgmtWrapper *pWrapper, tmsg_t msgType, NodeMsgFp nodeMsgFp, int8_t vgId);
void dndReportStartup(SDnode *pDnode, const char *pName, const char *pDesc);
void dndSendMonitorReport(SDnode *pDnode);
int32_t dndInitServer(SDnode *pDnode);
void dndCleanupServer(SDnode *pDnode);
int32_t dndInitClient(SDnode *pDnode);
void dndCleanupClient(SDnode *pDnode);
int32_t dndProcessNodeMsg(SDnode *pDnode, SNodeMsg *pMsg);
int32_t dndSendReqToMnode(SMgmtWrapper *pWrapper, SRpcMsg *pMsg);
int32_t dndSendReqToDnode(SMgmtWrapper *pWrapper, const SEpSet *pEpSet, SRpcMsg *pMsg);
void dndSendRsp(SMgmtWrapper *pWrapper, const SRpcMsg *pRsp);
void dndRegisterBrokenLinkArg(SMgmtWrapper *pWrapper, SRpcMsg *pMsg);
SMsgCb dndCreateMsgcb(SMgmtWrapper *pWrapper);
int32_t dndProcessNodeMsg(SDnode *pDnode, SNodeMsg *pMsg);
int32_t dndReadFile(SMgmtWrapper *pWrapper, bool *pDeployed);
int32_t dndWriteFile(SMgmtWrapper *pWrapper, bool deployed);
......
......@@ -34,7 +34,6 @@ int32_t dndInit();
void dndCleanup();
const char *dndStatStr(EDndStatus stat);
void dndGetStartup(SDnode *pDnode, SStartupReq *pStartup);
TdFilePtr dndCheckRunning(const char *dataDir);
void dndProcessStartupReq(SDnode *pDnode, SRpcMsg *pMsg);
// dndMsg.c
......@@ -51,13 +50,14 @@ void dndClose(SDnode *pDnode);
void dndHandleEvent(SDnode *pDnode, EDndEvent event);
// dndTransport.c
int32_t dndInitServer(SDnode *pDnode);
void dndCleanupServer(SDnode *pDnode);
int32_t dndInitClient(SDnode *pDnode);
void dndCleanupClient(SDnode *pDnode);
int32_t dndInitMsgHandle(SDnode *pDnode);
void dndSendRpcRsp(SMgmtWrapper *pWrapper, const SRpcMsg *pRsp);
// dndFile.c
TdFilePtr dndCheckRunning(const char *dataDir);
int32_t dndReadShmFile(SDnode *pDnode);
int32_t dndWriteShmFile(SDnode *pDnode);
#ifdef __cplusplus
}
#endif
......
......@@ -16,15 +16,6 @@
#define _DEFAULT_SOURCE
#include "dndInt.h"
static void dndResetLog(SMgmtWrapper *pMgmt) {
char logname[24] = {0};
snprintf(logname, sizeof(logname), "%slog", pMgmt->name);
dInfo("node:%s, reset log to %s in child process", pMgmt->name, logname);
taosCloseLog();
taosInitLog(logname, 1);
}
static bool dndRequireNode(SMgmtWrapper *pWrapper) {
bool required = false;
int32_t code =(*pWrapper->fp.requiredFp)(pWrapper, &required);
......@@ -37,14 +28,18 @@ static bool dndRequireNode(SMgmtWrapper *pWrapper) {
}
int32_t dndOpenNode(SMgmtWrapper *pWrapper) {
int32_t code = (*pWrapper->fp.openFp)(pWrapper);
if (code != 0) {
if (taosMkDir(pWrapper->path) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("node:%s, failed to create dir:%s since %s", pWrapper->name, pWrapper->path, terrstr());
return -1;
}
if ((*pWrapper->fp.openFp)(pWrapper) != 0) {
dError("node:%s, failed to open since %s", pWrapper->name, terrstr());
return -1;
} else {
dDebug("node:%s, has been opened", pWrapper->name);
}
dDebug("node:%s, has been opened", pWrapper->name);
pWrapper->deployed = true;
return 0;
}
......@@ -71,23 +66,13 @@ void dndCloseNode(SMgmtWrapper *pWrapper) {
}
static int32_t dndRunInSingleProcess(SDnode *pDnode) {
dInfo("dnode run in single process mode");
dInfo("dnode start to run in single process");
for (ENodeType n = 0; n < NODE_MAX; ++n) {
for (ENodeType n = DNODE; n < NODE_MAX; ++n) {
SMgmtWrapper *pWrapper = &pDnode->wrappers[n];
pWrapper->required = dndRequireNode(pWrapper);
if (!pWrapper->required) continue;
SMsgCb msgCb = dndCreateMsgcb(pWrapper);
tmsgSetDefaultMsgCb(&msgCb);
if (taosMkDir(pWrapper->path) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to create dir:%s since %s", pWrapper->path, terrstr());
return -1;
}
dInfo("node:%s, will start in single process", pWrapper->name);
pWrapper->procType = PROC_SINGLE;
if (dndOpenNode(pWrapper) != 0) {
dError("node:%s, failed to start since %s", pWrapper->name, terrstr());
return -1;
......@@ -106,18 +91,10 @@ static int32_t dndRunInSingleProcess(SDnode *pDnode) {
}
}
dInfo("dnode running in single process");
return 0;
}
static void dndClearNodesExecpt(SDnode *pDnode, ENodeType except) {
// dndCleanupServer(pDnode);
for (ENodeType n = 0; n < NODE_MAX; ++n) {
if (except == n) continue;
SMgmtWrapper *pWrapper = &pDnode->wrappers[n];
pWrapper->required = false;
}
}
static void dndConsumeChildQueue(SMgmtWrapper *pWrapper, SNodeMsg *pMsg, int16_t msgLen, void *pCont, int32_t contLen,
ProcFuncType ftype) {
SRpcMsg *pRpc = &pMsg->rpcMsg;
......@@ -163,115 +140,159 @@ static void dndConsumeParentQueue(SMgmtWrapper *pWrapper, SRpcMsg *pMsg, int16_t
taosMemoryFree(pMsg);
}
static int32_t dndRunInMultiProcess(SDnode *pDnode) {
dInfo("dnode run in multi process mode");
static int32_t dndRunInParentProcess(SDnode *pDnode) {
dInfo("dnode start to run in parent process");
SMgmtWrapper *pDWrapper = &pDnode->wrappers[DNODE];
if (dndOpenNode(pDWrapper) != 0) {
dError("node:%s, failed to start since %s", pDWrapper->name, terrstr());
return -1;
}
for (ENodeType n = 0; n < NODE_MAX; ++n) {
for (ENodeType n = DNODE + 1; n < NODE_MAX; ++n) {
SMgmtWrapper *pWrapper = &pDnode->wrappers[n];
pWrapper->required = dndRequireNode(pWrapper);
if (!pWrapper->required) continue;
SMsgCb msgCb = dndCreateMsgcb(pWrapper);
tmsgSetDefaultMsgCb(&msgCb);
int64_t shmsize = 1024 * 1024 * 2; // size will be a configuration item
if (taosCreateShm(&pWrapper->shm, shmsize) != 0) {
terrno = TAOS_SYSTEM_ERROR(terrno);
dError("node:%s, failed to create shm size:%" PRId64 " since %s", pWrapper->name, shmsize, terrstr());
return -1;
}
if (taosMkDir(pWrapper->path) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to create dir:%s since %s", pWrapper->path, terrstr());
SProcCfg cfg = {.childConsumeFp = (ProcConsumeFp)dndConsumeChildQueue,
.childMallocHeadFp = (ProcMallocFp)taosAllocateQitem,
.childFreeHeadFp = (ProcFreeFp)taosFreeQitem,
.childMallocBodyFp = (ProcMallocFp)rpcMallocCont,
.childFreeBodyFp = (ProcFreeFp)rpcFreeCont,
.parentConsumeFp = (ProcConsumeFp)dndConsumeParentQueue,
.parentMallocHeadFp = (ProcMallocFp)taosMemoryMalloc,
.parentFreeHeadFp = (ProcFreeFp)taosMemoryFree,
.parentMallocBodyFp = (ProcMallocFp)rpcMallocCont,
.parentFreeBodyFp = (ProcFreeFp)rpcFreeCont,
.shm = pWrapper->shm,
.pParent = pWrapper,
.isChild = false,
.name = pWrapper->name};
pWrapper->procType = PROC_PARENT;
pWrapper->pProc = taosProcInit(&cfg);
if (pWrapper->pProc == NULL) {
dError("node:%s, failed to create proc since %s", pWrapper->name, terrstr());
return -1;
}
}
if (n == DNODE) {
dInfo("node:%s, will start in parent process", pWrapper->name);
pWrapper->procType = PROC_SINGLE;
if (dndOpenNode(pWrapper) != 0) {
dError("node:%s, failed to start since %s", pWrapper->name, terrstr());
if (dndWriteShmFile(pDnode) != 0) {
dError("failed to write runtime file since %s", terrstr());
return -1;
}
for (ENodeType n = DNODE + 1; n < NODE_MAX; ++n) {
SMgmtWrapper *pWrapper = &pDnode->wrappers[n];
if (!pWrapper->required) continue;
if (pDnode->ntype == NODE_MAX) {
dInfo("node:%s, should be started manually", pWrapper->name);
} else {
char args[PATH_MAX];
int32_t pid = taosNewProc(args);
if (pid <= 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("node:%s, failed to exec in new process since %s", pWrapper->name, terrstr());
return -1;
}
continue;
pWrapper->procId = pid;
dInfo("node:%s, run in new process, pid:%d", pWrapper->name, pid);
}
SProcCfg cfg = {.childQueueSize = 1024 * 1024 * 2, // size will be a configuration item
.childConsumeFp = (ProcConsumeFp)dndConsumeChildQueue,
.childMallocHeadFp = (ProcMallocFp)taosAllocateQitem,
.childFreeHeadFp = (ProcFreeFp)taosFreeQitem,
.childMallocBodyFp = (ProcMallocFp)rpcMallocCont,
.childFreeBodyFp = (ProcFreeFp)rpcFreeCont,
.parentQueueSize = 1024 * 1024 * 2, // size will be a configuration item
.parentConsumeFp = (ProcConsumeFp)dndConsumeParentQueue,
.parentdMallocHeadFp = (ProcMallocFp)taosMemoryMalloc,
.parentFreeHeadFp = (ProcFreeFp)taosMemoryFree,
.parentMallocBodyFp = (ProcMallocFp)rpcMallocCont,
.parentFreeBodyFp = (ProcFreeFp)rpcFreeCont,
.pParent = pWrapper,
.name = pWrapper->name};
SProcObj *pProc = taosProcInit(&cfg);
if (pProc == NULL) {
dError("node:%s, failed to fork since %s", pWrapper->name, terrstr());
if (taosProcRun(pWrapper->pProc) != 0) {
dError("node:%s, failed to run proc since %s", pWrapper->name, terrstr());
return -1;
}
}
pWrapper->pProc = pProc;
dndSetStatus(pDnode, DND_STAT_RUNNING);
if (taosProcIsChild(pProc)) {
dInfo("node:%s, will start in child process", pWrapper->name);
pWrapper->procType = PROC_CHILD;
dndResetLog(pWrapper);
if ((*pDWrapper->fp.startFp)(pDWrapper) != 0) {
dError("node:%s, failed to start since %s", pDWrapper->name, terrstr());
return -1;
}
dInfo("node:%s, clean up resources inherited from parent", pWrapper->name);
dndClearNodesExecpt(pDnode, n);
dInfo("dnode running in parent process");
return 0;
}
dInfo("node:%s, will be initialized in child process", pWrapper->name);
if (dndOpenNode(pWrapper) != 0) {
dInfo("node:%s, failed to init in child process since %s", pWrapper->name, terrstr());
return -1;
}
static int32_t dndRunInChildProcess(SDnode *pDnode) {
dInfo("dnode start to run in child process");
SMgmtWrapper *pWrapper = &pDnode->wrappers[pDnode->ntype];
if (taosProcRun(pProc) != 0) {
dError("node:%s, failed to run proc since %s", pWrapper->name, terrstr());
return -1;
}
break;
} else {
dInfo("node:%s, will not start in parent process, child pid:%d", pWrapper->name, taosProcChildId(pProc));
pWrapper->procType = PROC_PARENT;
if (taosProcRun(pProc) != 0) {
dError("node:%s, failed to run proc since %s", pWrapper->name, terrstr());
return -1;
}
}
SMsgCb msgCb = dndCreateMsgcb(pWrapper);
tmsgSetDefaultMsgCb(&msgCb);
pWrapper->procType = PROC_CHILD;
if (dndOpenNode(pWrapper) != 0) {
dError("node:%s, failed to start since %s", pWrapper->name, terrstr());
return -1;
}
dndSetStatus(pDnode, DND_STAT_RUNNING);
SProcCfg cfg = {.childConsumeFp = (ProcConsumeFp)dndConsumeChildQueue,
.childMallocHeadFp = (ProcMallocFp)taosAllocateQitem,
.childFreeHeadFp = (ProcFreeFp)taosFreeQitem,
.childMallocBodyFp = (ProcMallocFp)rpcMallocCont,
.childFreeBodyFp = (ProcFreeFp)rpcFreeCont,
.parentConsumeFp = (ProcConsumeFp)dndConsumeParentQueue,
.parentMallocHeadFp = (ProcMallocFp)taosMemoryMalloc,
.parentFreeHeadFp = (ProcFreeFp)taosMemoryFree,
.parentMallocBodyFp = (ProcMallocFp)rpcMallocCont,
.parentFreeBodyFp = (ProcFreeFp)rpcFreeCont,
.shm = pWrapper->shm,
.pParent = pWrapper,
.isChild = true,
.name = pWrapper->name};
pWrapper->pProc = taosProcInit(&cfg);
if (pWrapper->pProc == NULL) {
dError("node:%s, failed to create proc since %s", pWrapper->name, terrstr());
return -1;
}
for (ENodeType n = 0; n < NODE_MAX; ++n) {
SMgmtWrapper *pWrapper = &pDnode->wrappers[n];
if (!pWrapper->required) continue;
if (pWrapper->fp.startFp == NULL) continue;
if (pWrapper->procType == PROC_PARENT && n != DNODE) continue;
if (pWrapper->procType == PROC_CHILD && n == DNODE) continue;
if (pWrapper->fp.startFp != NULL) {
if ((*pWrapper->fp.startFp)(pWrapper) != 0) {
dError("node:%s, failed to start since %s", pWrapper->name, terrstr());
return -1;
}
}
if (taosProcRun(pWrapper->pProc) != 0) {
dError("node:%s, failed to run proc since %s", pWrapper->name, terrstr());
return -1;
}
dInfo("dnode running in child process");
return 0;
}
int32_t dndRun(SDnode *pDnode) {
if (tsMultiProcess == 0) {
int32_t dndRun(SDnode * pDnode) {
if (!tsMultiProcess) {
if (dndRunInSingleProcess(pDnode) != 0) {
dError("failed to run dnode in single process mode since %s", terrstr());
dError("failed to run dnode since %s", terrstr());
return -1;
}
} else if (pDnode->ntype == DNODE || pDnode->ntype == NODE_MAX) {
if (dndRunInParentProcess(pDnode) != 0) {
dError("failed to run dnode in parent process since %s", terrstr());
return -1;
}
} else {
if (dndRunInMultiProcess(pDnode) != 0) {
dError("failed to run dnode in multi process mode since %s", terrstr());
if (dndRunInChildProcess(pDnode) != 0) {
dError("failed to run dnode in child process since %s", terrstr());
return -1;
}
}
dndReportStartup(pDnode, "TDengine", "initialized successfully");
dInfo("TDengine initialized successfully");
while (1) {
if (pDnode->event == DND_EVENT_STOP) {
......
......@@ -19,13 +19,12 @@
#define MAXLEN 1024
int32_t dndReadFile(SMgmtWrapper *pWrapper, bool *pDeployed) {
int32_t code = TSDB_CODE_NODE_PARSE_FILE_ERROR;
int32_t len = 0;
const int32_t maxLen = MAXLEN;
char content[MAXLEN + 1] = {0};
cJSON *root = NULL;
char file[PATH_MAX];
TdFilePtr pFile = NULL;
int32_t code = TSDB_CODE_NODE_PARSE_FILE_ERROR;
int64_t len = 0;
char content[MAXLEN + 1] = {0};
cJSON *root = NULL;
char file[PATH_MAX];
TdFilePtr pFile = NULL;
snprintf(file, sizeof(file), "%s%s%s.json", pWrapper->path, TD_DIRSEP, pWrapper->name);
pFile = taosOpenFile(file, TD_FILE_READ);
......@@ -35,13 +34,12 @@ int32_t dndReadFile(SMgmtWrapper *pWrapper, bool *pDeployed) {
goto _OVER;
}
len = (int32_t)taosReadFile(pFile, content, maxLen);
len = taosReadFile(pFile, content, MAXLEN);
if (len <= 0) {
dError("failed to read %s since content is null", file);
goto _OVER;
}
content[len] = 0;
root = cJSON_Parse(content);
if (root == NULL) {
dError("failed to read %s since invalid json format", file);
......@@ -55,8 +53,8 @@ int32_t dndReadFile(SMgmtWrapper *pWrapper, bool *pDeployed) {
}
*pDeployed = deployed->valueint != 0;
code = 0;
dDebug("succcessed to read file %s, deployed:%d", file, *pDeployed);
code = 0;
_OVER:
if (root != NULL) cJSON_Delete(root);
......@@ -67,30 +65,40 @@ _OVER:
}
int32_t dndWriteFile(SMgmtWrapper *pWrapper, bool deployed) {
char file[PATH_MAX] = {0};
int32_t code = -1;
int32_t len = 0;
char content[MAXLEN + 1] = {0};
char file[PATH_MAX] = {0};
char realfile[PATH_MAX] = {0};
TdFilePtr pFile = NULL;
snprintf(file, sizeof(file), "%s%s%s.json", pWrapper->path, TD_DIRSEP, pWrapper->name);
snprintf(realfile, sizeof(realfile), "%s%s%s.json", pWrapper->path, TD_DIRSEP, pWrapper->name);
TdFilePtr pFile = taosOpenFile(file, TD_FILE_CTEATE | TD_FILE_WRITE | TD_FILE_TRUNC);
pFile = taosOpenFile(file, TD_FILE_CTEATE | TD_FILE_WRITE | TD_FILE_TRUNC);
if (pFile == NULL) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to write %s since %s", file, terrstr());
return -1;
goto _OVER;
}
int32_t len = 0;
const int32_t maxLen = MAXLEN;
char content[MAXLEN + 1] = {0};
len += snprintf(content + len, MAXLEN - len, "{\n");
len += snprintf(content + len, MAXLEN - len, " \"deployed\": %d\n", deployed);
len += snprintf(content + len, MAXLEN - len, "}\n");
len += snprintf(content + len, maxLen - len, "{\n");
len += snprintf(content + len, maxLen - len, " \"deployed\": %d\n", deployed);
len += snprintf(content + len, maxLen - len, "}\n");
if (taosWriteFile(pFile, content, len) != len) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to write file:%s since %s", file, terrstr());
goto _OVER;
}
taosWriteFile(pFile, content, len);
taosFsyncFile(pFile);
taosCloseFile(&pFile);
if (taosFsyncFile(pFile) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to fsync file:%s since %s", file, terrstr());
goto _OVER;
}
char realfile[PATH_MAX] = {0};
snprintf(realfile, sizeof(realfile), "%s%s%s.json", pWrapper->path, TD_DIRSEP, pWrapper->name);
taosCloseFile(&pFile);
if (taosRenameFile(file, realfile) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
......@@ -99,5 +107,163 @@ int32_t dndWriteFile(SMgmtWrapper *pWrapper, bool deployed) {
}
dInfo("successed to write %s, deployed:%d", realfile, deployed);
return 0;
code = 0;
_OVER:
if (pFile != NULL) {
taosCloseFile(&pFile);
}
return code;
}
TdFilePtr dndCheckRunning(const char *dataDir) {
char filepath[PATH_MAX] = {0};
snprintf(filepath, sizeof(filepath), "%s%s.running", dataDir, TD_DIRSEP);
TdFilePtr pFile = taosOpenFile(filepath, TD_FILE_CTEATE | TD_FILE_WRITE | TD_FILE_TRUNC);
if (pFile == NULL) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to lock file:%s since %s", filepath, terrstr());
return NULL;
}
int32_t ret = taosLockFile(pFile);
if (ret != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to lock file:%s since %s", filepath, terrstr());
taosCloseFile(&pFile);
return NULL;
}
dDebug("file:%s is locked", filepath);
return pFile;
}
int32_t dndReadShmFile(SDnode *pDnode) {
int32_t code = -1;
char itemName[24] = {0};
char content[MAXLEN + 1] = {0};
char file[PATH_MAX] = {0};
cJSON *root = NULL;
TdFilePtr pFile = NULL;
snprintf(file, sizeof(file), "%s%s.shmfile", pDnode->dataDir, TD_DIRSEP);
pFile = taosOpenFile(file, TD_FILE_READ);
if (pFile == NULL) {
dDebug("file %s not exist", file);
code = 0;
goto _OVER;
}
if (taosReadFile(pFile, content, MAXLEN) > 0) {
root = cJSON_Parse(content);
if (root == NULL) {
terrno = TSDB_CODE_NODE_PARSE_FILE_ERROR;
dError("failed to read %s since invalid json format", file);
goto _OVER;
}
for (ENodeType ntype = DNODE + 1; ntype < NODE_MAX; ++ntype) {
snprintf(itemName, sizeof(itemName), "%s_shmid", dndNodeProcStr(ntype));
cJSON *shmid = cJSON_GetObjectItem(root, itemName);
if (shmid && shmid->type == cJSON_Number) {
pDnode->wrappers[ntype].shm.id = shmid->valueint;
}
snprintf(itemName, sizeof(itemName), "%s_shmsize", dndNodeProcStr(ntype));
cJSON *shmsize = cJSON_GetObjectItem(root, itemName);
if (shmsize && shmsize->type == cJSON_Number) {
pDnode->wrappers[ntype].shm.size = shmsize->valueint;
}
}
}
if (!tsMultiProcess || pDnode->ntype == DNODE || pDnode->ntype == DNODE) {
for (ENodeType ntype = DNODE; ntype < NODE_MAX; ++ntype) {
SMgmtWrapper *pWrapper = &pDnode->wrappers[ntype];
if (pWrapper->shm.id >= 0) {
dDebug("shmid:%d, is closed, size:%d", pWrapper->shm.id, pWrapper->shm.size);
taosDropShm(&pWrapper->shm);
}
}
} else {
SMgmtWrapper *pWrapper = &pDnode->wrappers[pDnode->ntype];
if (taosAttachShm(&pWrapper->shm) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("shmid:%d, failed to attach shm since %s", pWrapper->shm.id, terrstr());
goto _OVER;
}
dDebug("shmid:%d, is attached, size:%d", pWrapper->shm.id, pWrapper->shm.size);
}
dDebug("successed to open %s", file);
code = 0;
_OVER:
if (root != NULL) cJSON_Delete(root);
if (pFile != NULL) taosCloseFile(&pFile);
return code;
}
int32_t dndWriteShmFile(SDnode *pDnode) {
int32_t code = -1;
int32_t len = 0;
char content[MAXLEN + 1] = {0};
char file[PATH_MAX] = {0};
char realfile[PATH_MAX] = {0};
TdFilePtr pFile = NULL;
snprintf(file, sizeof(file), "%s%s.shmfile.bak", pDnode->dataDir, TD_DIRSEP);
snprintf(realfile, sizeof(realfile), "%s%s.shmfile", pDnode->dataDir, TD_DIRSEP);
pFile = taosOpenFile(file, TD_FILE_CTEATE | TD_FILE_WRITE | TD_FILE_TRUNC);
if (pFile == NULL) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to open file:%s since %s", file, terrstr());
goto _OVER;
}
len += snprintf(content + len, MAXLEN - len, "{\n");
for (ENodeType ntype = DNODE + 1; ntype < NODE_MAX; ++ntype) {
SMgmtWrapper *pWrapper = &pDnode->wrappers[ntype];
len += snprintf(content + len, MAXLEN - len, " \"%s_shmid\":%d,\n", dndNodeProcStr(ntype), pWrapper->shm.id);
if (ntype == NODE_MAX - 1) {
len += snprintf(content + len, MAXLEN - len, " \"%s_shmsize\":%d\n", dndNodeProcStr(ntype), pWrapper->shm.size);
} else {
len += snprintf(content + len, MAXLEN - len, " \"%s_shmsize\":%d,\n", dndNodeProcStr(ntype), pWrapper->shm.size);
}
}
len += snprintf(content + len, MAXLEN - len, "}\n");
if (taosWriteFile(pFile, content, len) != len) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to write file:%s since %s", file, terrstr());
goto _OVER;
}
if (taosFsyncFile(pFile) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to fsync file:%s since %s", file, terrstr());
goto _OVER;
}
taosCloseFile(&pFile);
if (taosRenameFile(file, realfile) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to rename %s to %s since %s", file, realfile, terrstr());
return -1;
}
dInfo("successed to write %s", realfile);
code = 0;
_OVER:
if (pFile != NULL) {
taosCloseFile(&pFile);
}
return code;
}
......@@ -20,7 +20,7 @@
static int8_t once = DND_ENV_INIT;
int32_t dndInit() {
dInfo("start to init dnode env");
dDebug("start to init dnode env");
if (atomic_val_compare_exchange_8(&once, DND_ENV_INIT, DND_ENV_READY) != DND_ENV_INIT) {
terrno = TSDB_CODE_REPEAT_INIT;
dError("failed to init dnode env since %s", terrstr());
......@@ -31,12 +31,6 @@ int32_t dndInit() {
taosBlockSIGPIPE();
taosResolveCRC();
if (rpcInit() != 0) {
dError("failed to init rpc since %s", terrstr());
dndCleanup();
return -1;
}
SMonCfg monCfg = {0};
monCfg.maxLogs = tsMonitorMaxLogs;
monCfg.port = tsMonitorPort;
......@@ -44,7 +38,6 @@ int32_t dndInit() {
monCfg.comp = tsMonitorComp;
if (monInit(&monCfg) != 0) {
dError("failed to init monitor since %s", terrstr());
dndCleanup();
return -1;
}
......@@ -53,20 +46,19 @@ int32_t dndInit() {
}
void dndCleanup() {
dInfo("start to cleanup dnode env");
dDebug("start to cleanup dnode env");
if (atomic_val_compare_exchange_8(&once, DND_ENV_READY, DND_ENV_CLEANUP) != DND_ENV_READY) {
dError("dnode env is already cleaned up");
return;
}
monCleanup();
rpcCleanup();
walCleanUp();
taosStopCacheRefreshWorker();
dInfo("dnode env is cleaned up");
}
void dndSetMsgHandle(SMgmtWrapper *pWrapper, int32_t msgType, NodeMsgFp nodeMsgFp, int32_t vgId) {
void dndSetMsgHandle(SMgmtWrapper *pWrapper, tmsg_t msgType, NodeMsgFp nodeMsgFp, int8_t vgId) {
pWrapper->msgFps[TMSG_INDEX(msgType)] = nodeMsgFp;
pWrapper->msgVgIds[TMSG_INDEX(msgType)] = vgId;
}
......@@ -92,29 +84,6 @@ void dndGetStartup(SDnode *pDnode, SStartupReq *pStartup) {
pStartup->finished = (dndGetStatus(pDnode) == DND_STAT_RUNNING);
}
TdFilePtr dndCheckRunning(const char *dataDir) {
char filepath[PATH_MAX] = {0};
snprintf(filepath, sizeof(filepath), "%s/.running", dataDir);
TdFilePtr pFile = taosOpenFile(filepath, TD_FILE_CTEATE | TD_FILE_WRITE | TD_FILE_TRUNC);
if (pFile == NULL) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to lock file:%s since %s", filepath, terrstr());
return NULL;
}
int32_t ret = taosLockFile(pFile);
if (ret != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
dError("failed to lock file:%s since %s", filepath, terrstr());
taosCloseFile(&pFile);
return NULL;
}
dDebug("file:%s is locked", filepath);
return pFile;
}
void dndProcessStartupReq(SDnode *pDnode, SRpcMsg *pReq) {
dDebug("startup req is received");
SStartupReq *pStartup = rpcMallocCont(sizeof(SStartupReq));
......
......@@ -16,7 +16,7 @@
#define _DEFAULT_SOURCE
#include "dndInt.h"
static int32_t dndInitMemory(SDnode *pDnode, const SDnodeOpt *pOption) {
static int32_t dndInitVars(SDnode *pDnode, const SDnodeOpt *pOption) {
pDnode->numOfSupportVnodes = pOption->numOfSupportVnodes;
pDnode->serverPort = pOption->serverPort;
pDnode->dataDir = strdup(pOption->dataDir);
......@@ -24,8 +24,9 @@ static int32_t dndInitMemory(SDnode *pDnode, const SDnodeOpt *pOption) {
pDnode->localFqdn = strdup(pOption->localFqdn);
pDnode->firstEp = strdup(pOption->firstEp);
pDnode->secondEp = strdup(pOption->secondEp);
pDnode->pDisks = pOption->pDisks;
pDnode->disks = pOption->disks;
pDnode->numOfDisks = pOption->numOfDisks;
pDnode->ntype = pOption->ntype;
pDnode->rebootTime = taosGetTimestampMs();
if (pDnode->dataDir == NULL || pDnode->localEp == NULL || pDnode->localFqdn == NULL || pDnode->firstEp == NULL ||
......@@ -33,18 +34,26 @@ static int32_t dndInitMemory(SDnode *pDnode, const SDnodeOpt *pOption) {
terrno = TSDB_CODE_OUT_OF_MEMORY;
return -1;
}
if (!tsMultiProcess || pDnode->ntype == DNODE || pDnode->ntype == NODE_MAX) {
pDnode->lockfile = dndCheckRunning(pDnode->dataDir);
if (pDnode->lockfile == NULL) {
return -1;
}
}
return 0;
}
static void dndClearMemory(SDnode *pDnode) {
static void dndClearVars(SDnode *pDnode) {
for (ENodeType n = 0; n < NODE_MAX; ++n) {
SMgmtWrapper *pMgmt = &pDnode->wrappers[n];
taosMemoryFreeClear(pMgmt->path);
}
if (pDnode->pLockFile != NULL) {
taosUnLockFile(pDnode->pLockFile);
taosCloseFile(&pDnode->pLockFile);
pDnode->pLockFile = NULL;
if (pDnode->lockfile != NULL) {
taosUnLockFile(pDnode->lockfile);
taosCloseFile(&pDnode->lockfile);
pDnode->lockfile = NULL;
}
taosMemoryFreeClear(pDnode->localEp);
taosMemoryFreeClear(pDnode->localFqdn);
......@@ -56,7 +65,7 @@ static void dndClearMemory(SDnode *pDnode) {
}
SDnode *dndCreate(const SDnodeOpt *pOption) {
dInfo("start to create dnode object");
dDebug("start to create dnode object");
int32_t code = -1;
char path[PATH_MAX] = {0};
SDnode *pDnode = NULL;
......@@ -67,26 +76,12 @@ SDnode *dndCreate(const SDnodeOpt *pOption) {
goto _OVER;
}
if (dndInitMemory(pDnode, pOption) != 0) {
if (dndInitVars(pDnode, pOption) != 0) {
dError("failed to init variables since %s", terrstr());
goto _OVER;
}
dndSetStatus(pDnode, DND_STAT_INIT);
pDnode->pLockFile = dndCheckRunning(pDnode->dataDir);
if (pDnode->pLockFile == NULL) {
goto _OVER;
}
if (dndInitServer(pDnode) != 0) {
dError("failed to init trans server since %s", terrstr());
goto _OVER;
}
if (dndInitClient(pDnode) != 0) {
dError("failed to init trans client since %s", terrstr());
goto _OVER;
}
dmGetMgmtFp(&pDnode->wrappers[DNODE]);
mmGetMgmtFp(&pDnode->wrappers[MNODE]);
vmGetMgmtFp(&pDnode->wrappers[VNODES]);
......@@ -94,14 +89,11 @@ SDnode *dndCreate(const SDnodeOpt *pOption) {
smGetMgmtFp(&pDnode->wrappers[SNODE]);
bmGetMgmtFp(&pDnode->wrappers[BNODE]);
if (dndInitMsgHandle(pDnode) != 0) {
goto _OVER;
}
for (ENodeType n = 0; n < NODE_MAX; ++n) {
SMgmtWrapper *pWrapper = &pDnode->wrappers[n];
snprintf(path, sizeof(path), "%s%s%s", pDnode->dataDir, TD_DIRSEP, pWrapper->name);
pWrapper->path = strdup(path);
pWrapper->shm.id = -1;
pWrapper->pDnode = pDnode;
if (pWrapper->path == NULL) {
terrno = TSDB_CODE_OUT_OF_MEMORY;
......@@ -112,15 +104,27 @@ SDnode *dndCreate(const SDnodeOpt *pOption) {
taosInitRWLatch(&pWrapper->latch);
}
if (dndInitMsgHandle(pDnode) != 0) {
dError("failed to msg handles since %s", terrstr());
goto _OVER;
}
if (dndReadShmFile(pDnode) != 0) {
dError("failed to read shm file since %s", terrstr());
goto _OVER;
}
SMsgCb msgCb = dndCreateMsgcb(&pDnode->wrappers[0]);
tmsgSetDefaultMsgCb(&msgCb);
dInfo("dnode object is created, data:%p", pDnode);
code = 0;
_OVER:
if (code != 0 && pDnode) {
dndClearMemory(pDnode);
dndClearVars(pDnode);
pDnode = NULL;
dError("failed to create dnode object since %s", terrstr());
} else {
dInfo("dnode object is created, data:%p", pDnode);
}
return pDnode;
......@@ -137,15 +141,12 @@ void dndClose(SDnode *pDnode) {
dInfo("start to close dnode, data:%p", pDnode);
dndSetStatus(pDnode, DND_STAT_STOPPED);
dndCleanupServer(pDnode);
dndCleanupClient(pDnode);
for (ENodeType n = 0; n < NODE_MAX; ++n) {
SMgmtWrapper *pWrapper = &pDnode->wrappers[n];
dndCloseNode(pWrapper);
}
dndClearMemory(pDnode);
dndClearVars(pDnode);
dInfo("dnode object is closed, data:%p", pDnode);
}
......
......@@ -285,7 +285,7 @@ static int32_t vmInit(SMgmtWrapper *pWrapper) {
tstrncpy(dCfg.dir, pDnode->dataDir, TSDB_FILENAME_LEN);
dCfg.level = 0;
dCfg.primary = 1;
SDiskCfg *pDisks = pDnode->pDisks;
SDiskCfg *pDisks = pDnode->disks;
int32_t numOfDisks = pDnode->numOfDisks;
if (numOfDisks <= 0 || pDisks == NULL) {
pDisks = &dCfg;
......
......@@ -76,7 +76,7 @@ static void vmProcessFetchQueue(SQueueInfo *pInfo, SNodeMsg *pMsg) {
SVnodeObj *pVnode = pInfo->ahandle;
dTrace("msg:%p, will be processed in vnode-fetch queue", pMsg);
int32_t code = vnodeProcessFetchMsg(pVnode->pImpl, &pMsg->rpcMsg);
int32_t code = vnodeProcessFetchMsg(pVnode->pImpl, &pMsg->rpcMsg, pInfo);
if (code != 0) {
vmSendRsp(pVnode->pWrapper, pMsg, code);
dTrace("msg:%p, is freed, result:0x%04x:%s", pMsg, code & 0XFFFF, tstrerror(code));
......@@ -168,7 +168,7 @@ static void vmProcessMergeQueue(SQueueInfo *pInfo, STaosQall *qall, int32_t numO
taosGetQitem(qall, (void **)&pMsg);
dTrace("msg:%p, will be processed in vnode-merge queue", pMsg);
int32_t code = vnodeProcessFetchMsg(pVnode->pImpl, &pMsg->rpcMsg);
int32_t code = vnodeProcessFetchMsg(pVnode->pImpl, &pMsg->rpcMsg, pInfo);
if (code != 0) {
vmSendRsp(pVnode->pWrapper, pMsg, code);
dTrace("msg:%p, is freed, result:0x%04x:%s", pMsg, code & 0XFFFF, tstrerror(code));
......@@ -414,8 +414,7 @@ int32_t vmStartWorker(SVnodesMgmt *pMgmt) {
pWPool->max = maxMergeThreads;
if (tWWorkerInit(pWPool) != 0) return -1;
SSingleWorkerCfg cfg = {
.min = 1, .max = 1, .name = "vnode-mgmt", .fp = (FItem)vmProcessMgmtQueue, .param = pMgmt};
SSingleWorkerCfg cfg = {.min = 1, .max = 1, .name = "vnode-mgmt", .fp = (FItem)vmProcessMgmtQueue, .param = pMgmt};
if (tSingleWorkerInit(&pMgmt->mgmtWorker, &cfg) != 0) {
dError("failed to start vnode-mgmt worker since %s", terrstr());
return -1;
......
......@@ -26,7 +26,7 @@
#include "parser.h"
#include "tname.h"
#define MND_TOPIC_VER_NUMBER 1
#define MND_TOPIC_VER_NUMBER 1
#define MND_TOPIC_RESERVE_SIZE 64
static int32_t mndTopicActionInsert(SSdb *pSdb, SMqTopicObj *pTopic);
......
......@@ -46,14 +46,11 @@ target_link_libraries(
PUBLIC stream
PUBLIC qworker
PUBLIC sync
# TODO: get rid of BDB
PUBLIC bdb
PUBLIC tdb
)
if(${META_DB_IMPL} STREQUAL "BDB")
target_link_libraries(vnode PUBLIC bdb)
elseif(${META_DB_IMPL} STREQUAL "TDB")
target_link_libraries(vnode PUBLIC tdb)
endif()
if(${BUILD_TEST})
add_subdirectory(test)
endif(${BUILD_TEST})
......@@ -100,10 +100,11 @@ int32_t tsdbUpdateSmaWindow(STsdb *pTsdb, const char *msg);
* @brief Insert tSma(Time-range-wise SMA) data from stream computing engine
*
* @param pTsdb
* @param indexUid
* @param msg
* @return int32_t
*/
int32_t tsdbInsertTSmaData(STsdb *pTsdb, char *msg);
int32_t tsdbInsertTSmaData(STsdb *pTsdb, int64_t indexUid, const char *msg);
/**
* @brief Drop tSma data and local cache.
......@@ -130,16 +131,11 @@ int32_t tsdbInsertRSmaData(STsdb *pTsdb, char *msg);
* @param pTsdb
* @param pData
* @param indexUid
* @param interval
* @param intervalUnit
* @param tableUid
* @param colId
* @param querySKey
* @param nMaxResult
* @return int32_t
*/
int32_t tsdbGetTSmaData(STsdb *pTsdb, STSmaDataWrapper *pData, int64_t indexUid, int64_t interval, int8_t intervalUnit,
tb_uid_t tableUid, col_id_t colId, TSKEY querySKey, int32_t nMaxResult);
int32_t tsdbGetTSmaData(STsdb *pTsdb, char *pData, int64_t indexUid, TSKEY querySKey, int32_t nMaxResult);
// STsdbCfg
int tsdbOptionsInit(STsdbCfg *);
......
......@@ -17,8 +17,9 @@
#define _TD_VNODE_H_
#include "os.h"
#include "trpc.h"
#include "tmsgcb.h"
#include "tqueue.h"
#include "trpc.h"
#include "meta.h"
#include "tarray.h"
......@@ -166,7 +167,7 @@ int vnodeProcessQueryMsg(SVnode *pVnode, SRpcMsg *pMsg);
* @param pMsg The request message
* @return int 0 for success, -1 for failure
*/
int vnodeProcessFetchMsg(SVnode *pVnode, SRpcMsg *pMsg);
int vnodeProcessFetchMsg(SVnode *pVnode, SRpcMsg *pMsg, SQueueInfo *pInfo);
/* ------------------------ SVnodeCfg ------------------------ */
/**
......@@ -185,7 +186,6 @@ void vnodeOptionsClear(SVnodeCfg *pOptions);
int vnodeValidateTableHash(SVnodeCfg *pVnodeOptions, char *tableFName);
/* ------------------------ FOR COMPILE ------------------------ */
int32_t vnodeAlter(SVnode *pVnode, const SVnodeCfg *pCfg);
......
......@@ -44,15 +44,14 @@ int32_t tsdbRemoveTSmaData(STsdb *pTsdb, STSma *param, STimeWindow *pWin);
#endif
// internal func
static FORCE_INLINE int32_t tsdbEncodeTSmaKey(tb_uid_t tableUid, col_id_t colId, TSKEY tsKey, void **pData) {
static FORCE_INLINE int32_t tsdbEncodeTSmaKey(int64_t groupId, TSKEY tsKey, void **pData) {
int32_t len = 0;
len += taosEncodeFixedI64(pData, tableUid);
len += taosEncodeFixedU16(pData, colId);
len += taosEncodeFixedI64(pData, tsKey);
len += taosEncodeFixedI64(pData, groupId);
return len;
}
static FORCE_INLINE int tsdbRLockSma(SSmaEnv *pEnv) {
static FORCE_INLINE int32_t tsdbRLockSma(SSmaEnv *pEnv) {
int code = taosThreadRwlockRdlock(&(pEnv->lock));
if (code != 0) {
terrno = TAOS_SYSTEM_ERROR(code);
......@@ -61,7 +60,7 @@ static FORCE_INLINE int tsdbRLockSma(SSmaEnv *pEnv) {
return 0;
}
static FORCE_INLINE int tsdbWLockSma(SSmaEnv *pEnv) {
static FORCE_INLINE int32_t tsdbWLockSma(SSmaEnv *pEnv) {
int code = taosThreadRwlockWrlock(&(pEnv->lock));
if (code != 0) {
terrno = TAOS_SYSTEM_ERROR(code);
......@@ -70,7 +69,7 @@ static FORCE_INLINE int tsdbWLockSma(SSmaEnv *pEnv) {
return 0;
}
static FORCE_INLINE int tsdbUnLockSma(SSmaEnv *pEnv) {
static FORCE_INLINE int32_t tsdbUnLockSma(SSmaEnv *pEnv) {
int code = taosThreadRwlockUnlock(&(pEnv->lock));
if (code != 0) {
terrno = TAOS_SYSTEM_ERROR(code);
......
......@@ -197,9 +197,9 @@ int tqCommit(STQ*);
int32_t tqProcessPollReq(STQ* pTq, SRpcMsg* pMsg);
int32_t tqProcessSetConnReq(STQ* pTq, char* msg);
int32_t tqProcessRebReq(STQ* pTq, char* msg);
int32_t tqProcessTaskExec(STQ* pTq, char* msg, int32_t msgLen);
int32_t tqProcessTaskExec(STQ* pTq, char* msg, int32_t msgLen, int32_t workerId);
int32_t tqProcessTaskDeploy(STQ* pTq, char* msg, int32_t msgLen);
int32_t tqProcessStreamTrigger(STQ* pTq, void* data, int32_t dataLen);
int32_t tqProcessStreamTrigger(STQ* pTq, void* data, int32_t dataLen, int32_t workerId);
// sma
void smaHandleRes(void* pVnode, int64_t smaId, const SArray* data);
......
......@@ -15,131 +15,637 @@
#include "metaDef.h"
#include "tdb.h"
#include "tdbInt.h"
struct SMetaDB {
TENV *pEnv;
TDB * pTbDB;
TDB * pSchemaDB;
TDB * pNameIdx;
TDB * pStbIdx;
TDB * pNtbIdx;
TDB * pCtbIdx;
// tag index hash table
// suid+colid --> TDB *
struct {
} tagIdxHt;
TDB *pTbDB;
TDB *pSchemaDB;
TDB *pNameIdx;
TDB *pStbIdx;
TDB *pNtbIdx;
TDB *pCtbIdx;
};
#define A(op, flag) \
do { \
if ((ret = op) != 0) goto flag; \
} while (0)
typedef struct __attribute__((__packed__)) {
tb_uid_t uid;
int32_t sver;
} SSchemaDbKey;
typedef struct {
char *name;
tb_uid_t uid;
} SNameIdxKey;
typedef struct {
tb_uid_t suid;
tb_uid_t uid;
} SCtbIdxKey;
static int metaEncodeTbInfo(void **buf, STbCfg *pTbCfg);
static void *metaDecodeTbInfo(void *buf, STbCfg *pTbCfg);
static int metaEncodeSchema(void **buf, SSchemaWrapper *pSW);
static void *metaDecodeSchema(void *buf, SSchemaWrapper *pSW);
static inline int metaUidCmpr(const void *arg1, int len1, const void *arg2, int len2) {
tb_uid_t uid1, uid2;
ASSERT(len1 == sizeof(tb_uid_t));
ASSERT(len2 == sizeof(tb_uid_t));
uid1 = ((tb_uid_t *)arg1)[0];
uid2 = ((tb_uid_t *)arg2)[0];
if (uid1 < uid2) {
return -1;
}
if (uid1 == uid2) {
return 0;
} else {
return 1;
}
}
static inline int metaSchemaKeyCmpr(const void *arg1, int len1, const void *arg2, int len2) {
int c;
SSchemaDbKey *pKey1 = (SSchemaDbKey *)arg1;
SSchemaDbKey *pKey2 = (SSchemaDbKey *)arg2;
c = metaUidCmpr(arg1, sizeof(tb_uid_t), arg2, sizeof(tb_uid_t));
if (c) return c;
if (pKey1->sver > pKey2->sver) {
return 1;
} else if (pKey1->sver == pKey2->sver) {
return 0;
} else {
return -1;
}
}
static inline int metaNameIdxCmpr(const void *arg1, int len1, const void *arg2, int len2) {
return strcmp((char *)arg1, (char *)arg2);
}
static inline int metaCtbIdxCmpr(const void *arg1, int len1, const void *arg2, int len2) {
int c;
SCtbIdxKey *pKey1 = (SCtbIdxKey *)arg1;
SCtbIdxKey *pKey2 = (SCtbIdxKey *)arg2;
c = metaUidCmpr(arg1, sizeof(tb_uid_t), arg2, sizeof(tb_uid_t));
if (c) return c;
return metaUidCmpr(&pKey1->uid, sizeof(tb_uid_t), &pKey2->uid, sizeof(tb_uid_t));
}
int metaOpenDB(SMeta *pMeta) {
SMetaDB *pDb;
TENV * pEnv;
TDB * pTbDB;
TDB * pSchemaDB;
TDB * pNameIdx;
TDB * pStbIdx;
TDB * pNtbIdx;
TDB * pCtbIdx;
SMetaDB *pMetaDb;
int ret;
pDb = (SMetaDB *)taosMemoryCalloc(1, sizeof(*pDb));
if (pDb == NULL) {
// allocate DB handle
pMetaDb = taosMemoryCalloc(1, sizeof(*pMetaDb));
if (pMetaDb == NULL) {
// TODO
ASSERT(0);
return -1;
}
// Create and open the ENV
A((tdbEnvCreate(&pEnv)), _err);
#if 0
// Set options of the environment
A(tdbEnvSetPageSize(pEnv, 8192), _err);
A(tdbEnvSetCacheSize(pEnv, 16 * 1024 * 1024), _err);
#endif
A((tdbEnvOpen(&pEnv)), _err);
// open the ENV
ret = tdbEnvOpen(pMeta->path, 4096, 256, &(pMetaDb->pEnv));
if (ret < 0) {
// TODO
ASSERT(0);
return -1;
}
// Create and open each DB
A(tdbCreate(&pTbDB), _err);
A(tdbOpen(&pTbDB, "table.db", NULL, pEnv), _err);
// open table DB
ret = tdbDbOpen("table.db", sizeof(tb_uid_t), TDB_VARIANT_LEN, metaUidCmpr, pMetaDb->pEnv, &(pMetaDb->pTbDB));
if (ret < 0) {
// TODO
ASSERT(0);
return -1;
}
A(tdbCreate(&pSchemaDB), _err);
A(tdbOpen(&pSchemaDB, "schema.db", NULL, pEnv), _err);
// open schema DB
ret = tdbDbOpen("schema.db", sizeof(SSchemaDbKey), TDB_VARIANT_LEN, metaSchemaKeyCmpr, pMetaDb->pEnv,
&(pMetaDb->pSchemaDB));
if (ret < 0) {
// TODO
ASSERT(0);
return -1;
}
A(tdbCreate(&pNameIdx), _err);
A(tdbOpen(&pNameIdx, "name.db", NULL, pEnv), _err);
// tdbAssociate();
ret = tdbDbOpen("name.idx", TDB_VARIANT_LEN, 0, metaNameIdxCmpr, pMetaDb->pEnv, &(pMetaDb->pNameIdx));
if (ret < 0) {
// TODO
ASSERT(0);
return -1;
}
pDb->pEnv = pEnv;
pDb->pTbDB = pTbDB;
pDb->pSchemaDB = pSchemaDB;
pMeta->pDB = pDb;
return 0;
ret = tdbDbOpen("stb.idx", sizeof(tb_uid_t), 0, metaUidCmpr, pMetaDb->pEnv, &(pMetaDb->pStbIdx));
if (ret < 0) {
// TODO
ASSERT(0);
return -1;
}
ret = tdbDbOpen("ntb.idx", sizeof(tb_uid_t), 0, metaUidCmpr, pMetaDb->pEnv, &(pMetaDb->pNtbIdx));
if (ret < 0) {
// TODO
ASSERT(0);
return -1;
}
_err:
return -1;
ret = tdbDbOpen("ctb.idx", sizeof(SCtbIdxKey), 0, metaCtbIdxCmpr, pMetaDb->pEnv, &(pMetaDb->pCtbIdx));
if (ret < 0) {
// TODO
ASSERT(0);
return -1;
}
pMeta->pDB = pMetaDb;
return 0;
}
void metaCloseDB(SMeta *pMeta) {
// TODO
if (pMeta->pDB) {
tdbDbClose(pMeta->pDB->pCtbIdx);
tdbDbClose(pMeta->pDB->pNtbIdx);
tdbDbClose(pMeta->pDB->pStbIdx);
tdbDbClose(pMeta->pDB->pNameIdx);
tdbDbClose(pMeta->pDB->pSchemaDB);
tdbDbClose(pMeta->pDB->pTbDB);
taosMemoryFree(pMeta->pDB);
}
}
int metaSaveTableToDB(SMeta *pMeta, STbCfg *pTbCfg) {
// TODO
tb_uid_t uid;
SMetaDB *pMetaDb;
void *pKey;
void *pVal;
int kLen;
int vLen;
int ret;
char buf[512];
void *pBuf;
SCtbIdxKey ctbIdxKey;
SSchemaDbKey schemaDbKey;
SSchemaWrapper schemaWrapper;
pMetaDb = pMeta->pDB;
// TODO: make this operation pre-process
if (pTbCfg->type == META_SUPER_TABLE) {
uid = pTbCfg->stbCfg.suid;
} else {
uid = metaGenerateUid(pMeta);
}
// save to table.db
pKey = &uid;
kLen = sizeof(uid);
pVal = pBuf = buf;
metaEncodeTbInfo(&pBuf, pTbCfg);
vLen = POINTER_DISTANCE(pBuf, buf);
ret = tdbDbInsert(pMetaDb->pTbDB, pKey, kLen, pVal, vLen);
if (ret < 0) {
return -1;
}
// save to schema.db for META_SUPER_TABLE and META_NORMAL_TABLE
if (pTbCfg->type != META_CHILD_TABLE) {
schemaDbKey.uid = uid;
schemaDbKey.sver = 0; // TODO
pKey = &schemaDbKey;
kLen = sizeof(schemaDbKey);
if (pTbCfg->type == META_SUPER_TABLE) {
schemaWrapper.nCols = pTbCfg->stbCfg.nCols;
schemaWrapper.pSchema = pTbCfg->stbCfg.pSchema;
} else {
schemaWrapper.nCols = pTbCfg->ntbCfg.nCols;
schemaWrapper.pSchema = pTbCfg->ntbCfg.pSchema;
}
pVal = pBuf = buf;
metaEncodeSchema(&pBuf, &schemaWrapper);
vLen = POINTER_DISTANCE(pBuf, buf);
ret = tdbDbInsert(pMetaDb->pSchemaDB, pKey, kLen, pVal, vLen);
if (ret < 0) {
return -1;
}
}
// update name.idx
int nameLen = strlen(pTbCfg->name);
memcpy(buf, pTbCfg->name, nameLen + 1);
((tb_uid_t *)(buf + nameLen + 1))[0] = uid;
pKey = buf;
kLen = nameLen + 1 + sizeof(uid);
pVal = NULL;
vLen = 0;
ret = tdbDbInsert(pMetaDb->pNameIdx, pKey, kLen, pVal, vLen);
if (ret < 0) {
return -1;
}
// update other index
if (pTbCfg->type == META_SUPER_TABLE) {
pKey = &uid;
kLen = sizeof(uid);
pVal = NULL;
vLen = 0;
ret = tdbDbInsert(pMetaDb->pStbIdx, pKey, kLen, pVal, vLen);
if (ret < 0) {
return -1;
}
} else if (pTbCfg->type == META_CHILD_TABLE) {
ctbIdxKey.suid = pTbCfg->ctbCfg.suid;
ctbIdxKey.uid = uid;
pKey = &ctbIdxKey;
kLen = sizeof(ctbIdxKey);
pVal = NULL;
vLen = 0;
ret = tdbDbInsert(pMetaDb->pCtbIdx, pKey, kLen, pVal, vLen);
if (ret < 0) {
return -1;
}
} else if (pTbCfg->type == META_NORMAL_TABLE) {
pKey = &uid;
kLen = sizeof(uid);
pVal = NULL;
vLen = 0;
ret = tdbDbInsert(pMetaDb->pNtbIdx, pKey, kLen, pVal, vLen);
if (ret < 0) {
return -1;
}
}
return 0;
}
int metaRemoveTableFromDb(SMeta *pMeta, tb_uid_t uid) {
// TODO
ASSERT(0);
return 0;
}
STbCfg *metaGetTbInfoByUid(SMeta *pMeta, tb_uid_t uid) {
// TODO
return NULL;
int ret;
SMetaDB *pMetaDb = pMeta->pDB;
void *pKey;
void *pVal;
int kLen;
int vLen;
STbCfg *pTbCfg;
// Fetch
pKey = &uid;
kLen = sizeof(uid);
pVal = NULL;
ret = tdbDbGet(pMetaDb->pTbDB, pKey, kLen, &pVal, &vLen);
if (ret < 0) {
return NULL;
}
// Decode
pTbCfg = taosMemoryMalloc(sizeof(*pTbCfg));
metaDecodeTbInfo(pVal, pTbCfg);
TDB_FREE(pVal);
return pTbCfg;
}
STbCfg *metaGetTbInfoByName(SMeta *pMeta, char *tbname, tb_uid_t *uid) {
// TODO
return NULL;
void *pKey;
void *pVal;
void *ppKey;
int pkLen;
int kLen;
int vLen;
int ret;
pKey = tbname;
kLen = strlen(tbname) + 1;
pVal = NULL;
ppKey = NULL;
ret = tdbDbPGet(pMeta->pDB->pNameIdx, pKey, kLen, &ppKey, &pkLen, &pVal, &vLen);
if (ret < 0) {
return NULL;
}
ASSERT(pkLen == kLen + sizeof(uid));
*uid = *(tb_uid_t *)POINTER_SHIFT(ppKey, kLen);
TDB_FREE(ppKey);
TDB_FREE(pVal);
return metaGetTbInfoByUid(pMeta, *uid);
}
SSchemaWrapper *metaGetTableSchema(SMeta *pMeta, tb_uid_t uid, int32_t sver, bool isinline) {
// TODO
return NULL;
void *pKey;
void *pVal;
int kLen;
int vLen;
int ret;
SSchemaDbKey schemaDbKey;
SSchemaWrapper *pSchemaWrapper;
void *pBuf;
// fetch
schemaDbKey.uid = uid;
schemaDbKey.sver = sver;
pKey = &schemaDbKey;
kLen = sizeof(schemaDbKey);
pVal = NULL;
ret = tdbDbGet(pMeta->pDB->pSchemaDB, pKey, kLen, &pVal, &vLen);
if (ret < 0) {
return NULL;
}
// decode
pBuf = pVal;
pSchemaWrapper = taosMemoryMalloc(sizeof(*pSchemaWrapper));
metaDecodeSchema(pBuf, pSchemaWrapper);
TDB_FREE(pVal);
return pSchemaWrapper;
}
STSchema *metaGetTbTSchema(SMeta *pMeta, tb_uid_t uid, int32_t sver) {
// TODO
return NULL;
tb_uid_t quid;
SSchemaWrapper *pSW;
STSchemaBuilder sb;
SSchema *pSchema;
STSchema *pTSchema;
STbCfg *pTbCfg;
pTbCfg = metaGetTbInfoByUid(pMeta, uid);
if (pTbCfg->type == META_CHILD_TABLE) {
quid = pTbCfg->ctbCfg.suid;
} else {
quid = uid;
}
pSW = metaGetTableSchema(pMeta, quid, sver, true);
if (pSW == NULL) {
return NULL;
}
tdInitTSchemaBuilder(&sb, 0);
for (int i = 0; i < pSW->nCols; i++) {
pSchema = pSW->pSchema + i;
tdAddColToSchema(&sb, pSchema->type, pSchema->colId, pSchema->bytes);
}
pTSchema = tdGetSchemaFromBuilder(&sb);
tdDestroyTSchemaBuilder(&sb);
return pTSchema;
}
struct SMTbCursor {
TDBC *pDbc;
};
SMTbCursor *metaOpenTbCursor(SMeta *pMeta) {
// TODO
return NULL;
SMTbCursor *pTbCur = NULL;
SMetaDB *pDB = pMeta->pDB;
pTbCur = (SMTbCursor *)taosMemoryCalloc(1, sizeof(*pTbCur));
if (pTbCur == NULL) {
return NULL;
}
tdbDbcOpen(pDB->pTbDB, &pTbCur->pDbc);
return pTbCur;
}
void metaCloseTbCursor(SMTbCursor *pTbCur) {
// TODO
if (pTbCur) {
if (pTbCur->pDbc) {
tdbDbcClose(pTbCur->pDbc);
}
taosMemoryFree(pTbCur);
}
}
char *metaTbCursorNext(SMTbCursor *pTbCur) {
// TODO
void *pKey = NULL;
void *pVal = NULL;
int kLen;
int vLen;
int ret;
void *pBuf;
STbCfg tbCfg;
for (;;) {
ret = tdbDbNext(pTbCur->pDbc, &pKey, &kLen, &pVal, &vLen);
if (ret < 0) break;
pBuf = pVal;
metaDecodeTbInfo(pBuf, &tbCfg);
if (tbCfg.type == META_SUPER_TABLE) {
taosMemoryFree(tbCfg.name);
taosMemoryFree(tbCfg.stbCfg.pTagSchema);
continue;
;
} else if (tbCfg.type == META_CHILD_TABLE) {
kvRowFree(tbCfg.ctbCfg.pTag);
}
return tbCfg.name;
}
return NULL;
}
struct SMCtbCursor {
TDBC *pCur;
tb_uid_t suid;
void *pKey;
void *pVal;
int kLen;
int vLen;
};
SMCtbCursor *metaOpenCtbCursor(SMeta *pMeta, tb_uid_t uid) {
SMCtbCursor *pCtbCur = NULL;
SMetaDB *pDB = pMeta->pDB;
int ret;
pCtbCur = (SMCtbCursor *)taosMemoryCalloc(1, sizeof(*pCtbCur));
if (pCtbCur == NULL) {
return NULL;
}
pCtbCur->suid = uid;
ret = tdbDbcOpen(pDB->pCtbIdx, &pCtbCur->pCur);
if (ret < 0) {
taosMemoryFree(pCtbCur);
return NULL;
}
// TODO: move the cursor to the suid there
return pCtbCur;
}
void metaCloseCtbCurosr(SMCtbCursor *pCtbCur) {
if (pCtbCur) {
if (pCtbCur->pCur) {
tdbDbcClose(pCtbCur->pCur);
TDB_FREE(pCtbCur->pKey);
TDB_FREE(pCtbCur->pVal);
}
taosMemoryFree(pCtbCur);
}
}
tb_uid_t metaCtbCursorNext(SMCtbCursor *pCtbCur) {
int ret;
SCtbIdxKey *pCtbIdxKey;
ret = tdbDbNext(pCtbCur->pCur, &pCtbCur->pKey, &pCtbCur->kLen, &pCtbCur->pVal, &pCtbCur->vLen);
if (ret < 0) {
return 0;
}
pCtbIdxKey = pCtbCur->pVal;
return pCtbIdxKey->uid;
}
int metaGetTbNum(SMeta *pMeta) {
// TODO
// ASSERT(0);
return 0;
}
STSmaWrapper *metaGetSmaInfoByTable(SMeta *pMeta, tb_uid_t uid) {
// TODO
ASSERT(0);
return NULL;
}
void metaCloseCtbCurosr(SMCtbCursor *pCtbCur) {
int metaRemoveSmaFromDb(SMeta *pMeta, int64_t indexUid) {
// TODO
ASSERT(0);
return 0;
}
tb_uid_t metaCtbCursorNext(SMCtbCursor *pCtbCur) {
int metaSaveSmaToDB(SMeta *pMeta, STSma *pSmaCfg) {
// TODO
ASSERT(0);
return 0;
}
\ No newline at end of file
}
STSma *metaGetSmaInfoByIndex(SMeta *pMeta, int64_t indexUid) {
// TODO
ASSERT(0);
return NULL;
}
const char *metaSmaCursorNext(SMSmaCursor *pCur) {
// TODO
ASSERT(0);
return NULL;
}
void metaCloseSmaCurosr(SMSmaCursor *pCur) {
// TODO
ASSERT(0);
}
SArray *metaGetSmaTbUids(SMeta *pMeta, bool isDup) {
// TODO
ASSERT(0);
return NULL;
}
SMSmaCursor *metaOpenSmaCursor(SMeta *pMeta, tb_uid_t uid) {
// TODO
ASSERT(0);
return NULL;
}
static int metaEncodeSchema(void **buf, SSchemaWrapper *pSW) {
int tlen = 0;
SSchema *pSchema;
tlen += taosEncodeFixedU32(buf, pSW->nCols);
for (int i = 0; i < pSW->nCols; i++) {
pSchema = pSW->pSchema + i;
tlen += taosEncodeFixedI8(buf, pSchema->type);
tlen += taosEncodeFixedI16(buf, pSchema->colId);
tlen += taosEncodeFixedI32(buf, pSchema->bytes);
tlen += taosEncodeString(buf, pSchema->name);
}
return tlen;
}
static void *metaDecodeSchema(void *buf, SSchemaWrapper *pSW) {
SSchema *pSchema;
buf = taosDecodeFixedU32(buf, &pSW->nCols);
pSW->pSchema = (SSchema *)taosMemoryMalloc(sizeof(SSchema) * pSW->nCols);
for (int i = 0; i < pSW->nCols; i++) {
pSchema = pSW->pSchema + i;
buf = taosDecodeFixedI8(buf, &pSchema->type);
buf = taosDecodeFixedI16(buf, &pSchema->colId);
buf = taosDecodeFixedI32(buf, &pSchema->bytes);
buf = taosDecodeStringTo(buf, pSchema->name);
}
return buf;
}
static int metaEncodeTbInfo(void **buf, STbCfg *pTbCfg) {
int tsize = 0;
tsize += taosEncodeString(buf, pTbCfg->name);
tsize += taosEncodeFixedU32(buf, pTbCfg->ttl);
tsize += taosEncodeFixedU32(buf, pTbCfg->keep);
tsize += taosEncodeFixedU8(buf, pTbCfg->info);
if (pTbCfg->type == META_SUPER_TABLE) {
SSchemaWrapper sw = {.nCols = pTbCfg->stbCfg.nTagCols, .pSchema = pTbCfg->stbCfg.pTagSchema};
tsize += metaEncodeSchema(buf, &sw);
} else if (pTbCfg->type == META_CHILD_TABLE) {
tsize += taosEncodeFixedU64(buf, pTbCfg->ctbCfg.suid);
tsize += tdEncodeKVRow(buf, pTbCfg->ctbCfg.pTag);
} else if (pTbCfg->type == META_NORMAL_TABLE) {
// TODO
} else {
ASSERT(0);
}
return tsize;
}
static void *metaDecodeTbInfo(void *buf, STbCfg *pTbCfg) {
buf = taosDecodeString(buf, &(pTbCfg->name));
buf = taosDecodeFixedU32(buf, &(pTbCfg->ttl));
buf = taosDecodeFixedU32(buf, &(pTbCfg->keep));
buf = taosDecodeFixedU8(buf, &(pTbCfg->info));
if (pTbCfg->type == META_SUPER_TABLE) {
SSchemaWrapper sw;
buf = metaDecodeSchema(buf, &sw);
pTbCfg->stbCfg.nTagCols = sw.nCols;
pTbCfg->stbCfg.pTagSchema = sw.pSchema;
} else if (pTbCfg->type == META_CHILD_TABLE) {
buf = taosDecodeFixedU64(buf, &(pTbCfg->ctbCfg.suid));
buf = tdDecodeKVRow(buf, &(pTbCfg->ctbCfg.pTag));
} else if (pTbCfg->type == META_NORMAL_TABLE) {
// TODO
} else {
ASSERT(0);
}
return buf;
}
......@@ -356,7 +356,6 @@ int32_t tqProcessPollReq(STQ* pTq, SRpcMsg* pMsg) {
void* buf = rpcMallocCont(tlen);
if (buf == NULL) {
pMsg->code = -1;
ASSERT(0);
return -1;
}
((SMqRspHead*)buf)->mqMsgType = TMQ_MSG_TYPE__POLL_RSP;
......@@ -490,7 +489,7 @@ int32_t tqProcessTaskDeploy(STQ* pTq, char* msg, int32_t msgLen) {
return 0;
}
int32_t tqProcessStreamTrigger(STQ* pTq, void* data, int32_t dataLen) {
int32_t tqProcessStreamTrigger(STQ* pTq, void* data, int32_t dataLen, int32_t workerId) {
void* pIter = NULL;
while (1) {
......@@ -498,14 +497,14 @@ int32_t tqProcessStreamTrigger(STQ* pTq, void* data, int32_t dataLen) {
if (pIter == NULL) break;
SStreamTask* pTask = (SStreamTask*)pIter;
if (streamExecTask(pTask, &pTq->pVnode->msgCb, data, STREAM_DATA_TYPE_SUBMIT_BLOCK, 0) < 0) {
if (streamExecTask(pTask, &pTq->pVnode->msgCb, data, STREAM_DATA_TYPE_SUBMIT_BLOCK, workerId) < 0) {
// TODO
}
}
return 0;
}
int32_t tqProcessTaskExec(STQ* pTq, char* msg, int32_t msgLen) {
int32_t tqProcessTaskExec(STQ* pTq, char* msg, int32_t msgLen, int32_t workerId) {
SStreamTaskExecReq req;
tDecodeSStreamTaskExecReq(msg, &req);
......@@ -515,7 +514,7 @@ int32_t tqProcessTaskExec(STQ* pTq, char* msg, int32_t msgLen) {
SStreamTask* pTask = taosHashGet(pTq->pStreamTasks, &taskId, sizeof(int32_t));
ASSERT(pTask);
if (streamExecTask(pTask, &pTq->pVnode->msgCb, req.data, STREAM_DATA_TYPE_SSDATA_BLOCK, 0) < 0) {
if (streamExecTask(pTask, &pTq->pVnode->msgCb, req.data, STREAM_DATA_TYPE_SSDATA_BLOCK, workerId) < 0) {
// TODO
}
return 0;
......
......@@ -167,8 +167,10 @@ SArray* tqRetrieveDataBlock(STqReadHandle* pHandle) {
if (!tdSTSRowIterNext(&iter, pColData->info.colId, pColData->info.type, &sVal)) {
break;
}
// TODO handle null
colDataAppend(pColData, curRow, sVal.val, sVal.valType == TD_VTYPE_NULL);
if (colDataAppend(pColData, curRow, sVal.val, sVal.valType == TD_VTYPE_NULL) < 0) {
taosArrayDestroyEx(pArray, (void (*)(void*))tDeleteSSDataBlock);
return NULL;
}
}
curRow++;
}
......
......@@ -24,7 +24,7 @@ static const char *TSDB_SMA_DNAME[] = {
#define SMA_STORAGE_TSDB_DAYS 30
#define SMA_STORAGE_TSDB_TIMES 10
#define SMA_STORAGE_SPLIT_HOURS 24
#define SMA_KEY_LEN 18 // tableUid_colId_TSKEY 8+2+8
#define SMA_KEY_LEN 16 // TSKEY+groupId 8+8
#define SMA_DROP_EXPIRED_TIME 10 // default is 10 seconds
#define SMA_STATE_HASH_SLOT 4
......@@ -38,10 +38,10 @@ typedef enum {
} ESmaStorageLevel;
typedef struct {
STsdb *pTsdb;
SDBFile dFile;
SSDataBlock *pData; // sma data
int32_t interval; // interval with the precision of DB
STsdb *pTsdb;
SDBFile dFile;
const SArray *pDataBlocks; // sma data
int32_t interval; // interval with the precision of DB
} STSmaWriteH;
typedef struct {
......@@ -94,26 +94,24 @@ static int32_t tsdbUnRefSmaStat(STsdb *pTsdb, SSmaStat *pStat);
// read data
// TODO: This is the basic params, and should wrap the params to a queryHandle.
static int32_t tsdbGetTSmaDataImpl(STsdb *pTsdb, STSmaDataWrapper *pData, int64_t indexUid, int64_t interval,
int8_t intervalUnit, tb_uid_t tableUid, col_id_t colId, TSKEY querySKey,
int32_t nMaxResult);
static int32_t tsdbGetTSmaDataImpl(STsdb *pTsdb, char *pData, int64_t indexUid, TSKEY querySKey, int32_t nMaxResult);
// insert data
static int32_t tsdbInitTSmaWriteH(STSmaWriteH *pSmaH, STsdb *pTsdb, SSDataBlock *pData, int64_t interval,
static int32_t tsdbInitTSmaWriteH(STSmaWriteH *pSmaH, STsdb *pTsdb, const SArray *pDataBlocks, int64_t interval,
int8_t intervalUnit);
static void tsdbDestroyTSmaWriteH(STSmaWriteH *pSmaH);
static int32_t tsdbInitTSmaReadH(STSmaReadH *pSmaH, STsdb *pTsdb, int64_t interval, int8_t intervalUnit);
static int32_t tsdbGetSmaStorageLevel(int64_t interval, int8_t intervalUnit);
static int32_t tsdbInsertTSmaDataSection(STSmaWriteH *pSmaH, STSmaDataWrapper *pData);
static int32_t tsdbSetRSmaDataFile(STSmaWriteH *pSmaH, int32_t fid);
static int32_t tsdbInsertTSmaBlocks(STSmaWriteH *pSmaH, void *smaKey, uint32_t keyLen, void *pData, uint32_t dataLen);
static int64_t tsdbGetIntervalByPrecision(int64_t interval, uint8_t intervalUnit, int8_t precision);
static int64_t tsdbGetIntervalByPrecision(int64_t interval, uint8_t intervalUnit, int8_t precision, bool adjusted);
static int32_t tsdbGetTSmaDays(STsdb *pTsdb, int64_t interval, int32_t storageLevel);
static int32_t tsdbSetTSmaDataFile(STSmaWriteH *pSmaH, STSmaDataWrapper *pData, int64_t indexUid, int32_t fid);
static int32_t tsdbSetTSmaDataFile(STSmaWriteH *pSmaH, int64_t indexUid, int32_t fid);
static int32_t tsdbInitTSmaFile(STSmaReadH *pSmaH, int64_t indexUid, TSKEY skey);
static bool tsdbSetAndOpenTSmaFile(STSmaReadH *pReadH, TSKEY *queryKey);
static void tsdbGetSmaDir(int32_t vgId, ETsdbSmaType smaType, char dirName[]);
static int32_t tsdbInsertTSmaDataImpl(STsdb *pTsdb, char *msg);
static int32_t tsdbInsertRSmaDataImpl(STsdb *pTsdb, char *msg);
static int32_t tsdbInsertTSmaDataImpl(STsdb *pTsdb, int64_t indexUid, const char *msg);
static int32_t tsdbInsertRSmaDataImpl(STsdb *pTsdb, const char *msg);
// mgmt interface
static int32_t tsdbDropTSmaDataImpl(STsdb *pTsdb, int64_t indexUid);
......@@ -387,7 +385,6 @@ static int32_t tsdbCheckAndInitSmaEnv(STsdb *pTsdb, int8_t smaType) {
return TSDB_CODE_SUCCESS;
};
static int32_t tsdbSetExpiredWindow(STsdb *pTsdb, SHashObj *pItemsHash, int64_t indexUid, int64_t winSKey) {
SSmaStatItem *pItem = taosHashGet(pItemsHash, &indexUid, sizeof(indexUid));
if (pItem == NULL) {
......@@ -480,18 +477,15 @@ int32_t tsdbUpdateExpiredWindowImpl(STsdb *pTsdb, const char *msg) {
TSKEY expiredWindows[SMA_TEST_EXPIRED_WINDOW_SIZE];
#endif
// Firstly, assume that tSma can only be created on super table/normal table.
// getActiveTimeWindow
SSmaEnv *pEnv = REPO_SMA_ENV(pTsdb, TSDB_SMA_TYPE_TIME_RANGE);
SSmaEnv *pEnv = REPO_SMA_ENV(pTsdb, TSDB_SMA_TYPE_TIME_RANGE);
SSmaStat *pStat = SMA_ENV_STAT(pEnv);
SHashObj *pItemsHash = SMA_ENV_STAT_ITEMS(pEnv);
TASSERT(pEnv != NULL && pStat != NULL && pItemsHash != NULL);
// basic procedure
// TODO: optimization
tsdbRefSmaStat(pTsdb, pStat);
......@@ -523,11 +517,11 @@ int32_t tsdbUpdateExpiredWindowImpl(STsdb *pTsdb, const char *msg) {
tdFreeTSmaWrapper(pSW);
break;
}
if(pSW == NULL) {
if((pSW =metaGetSmaInfoByTable(REPO_META(pTsdb), pBlock->suid)) == NULL) {
if (pSW == NULL) {
if ((pSW = metaGetSmaInfoByTable(REPO_META(pTsdb), pBlock->suid)) == NULL) {
break;
}
if((pSW->number) <= 0 || (pSW->tSma == NULL)) {
if ((pSW->number) <= 0 || (pSW->tSma == NULL)) {
tdFreeTSmaWrapper(pSW);
break;
}
......@@ -657,9 +651,8 @@ static int32_t tsdbGetSmaStorageLevel(int64_t interval, int8_t intervalUnit) {
*/
static int32_t tsdbInsertTSmaBlocks(STSmaWriteH *pSmaH, void *smaKey, uint32_t keyLen, void *pData, uint32_t dataLen) {
SDBFile *pDBFile = &pSmaH->dFile;
tsdbDebug("vgId:%d insert sma data blocks into %s: smaKey %" PRIx64 "-%" PRIu16 "-%" PRIx64 ", dataLen %d",
REPO_ID(pSmaH->pTsdb), pDBFile->path, *(tb_uid_t *)smaKey, *(uint16_t *)POINTER_SHIFT(smaKey, 8),
*(int64_t *)POINTER_SHIFT(smaKey, 10), dataLen);
printf("\nvgId:%d insert sma data blocks into %s: smaKey %" PRIx64 "-%" PRIx64 ", dataLen %" PRIu32 "\n",
REPO_ID(pSmaH->pTsdb), pDBFile->path, *(int64_t *)smaKey, *(int64_t *)POINTER_SHIFT(smaKey, 8), dataLen);
// TODO: insert sma data blocks into B+Tree(TDB)
if (tsdbSaveSmaToDB(pDBFile, smaKey, keyLen, pData, dataLen) != 0) {
......@@ -683,9 +676,15 @@ static int32_t tsdbInsertTSmaBlocks(STSmaWriteH *pSmaH, void *smaKey, uint32_t k
* @param interval
* @param intervalUnit
* @param precision
* @param adjusted Interval already adjusted according to DB precision
* @return int64_t
*/
static int64_t tsdbGetIntervalByPrecision(int64_t interval, uint8_t intervalUnit, int8_t precision) {
static int64_t tsdbGetIntervalByPrecision(int64_t interval, uint8_t intervalUnit, int8_t precision, bool adjusted) {
if (adjusted) {
return interval;
}
switch (intervalUnit) {
case TIME_UNIT_YEAR: // approximate value
interval *= 365 * 86400 * 1e3;
......@@ -753,59 +752,12 @@ static int64_t tsdbGetIntervalByPrecision(int64_t interval, uint8_t intervalUnit
return interval;
}
/**
* @brief Split the TSma data blocks into expected size and insert into B+Tree.
*
* @param pSmaH
* @param pData
* @param nOffset The nOffset of blocks since fid changes.
* @param nBlocks The nBlocks with the same fid since nOffset.
* @return int32_t
*/
static int32_t tsdbInsertTSmaDataSection(STSmaWriteH *pSmaH, STSmaDataWrapper *pData) {
STsdb *pTsdb = pSmaH->pTsdb;
tsdbDebug("tsdbInsertTSmaDataSection: index %" PRIi64 ", skey %" PRIi64, pData->indexUid, pData->skey);
// TODO: check the data integrity
int32_t len = 0;
while (true) {
if (len >= pData->dataLen) {
break;
}
assert(pData->dataLen > 0);
STSmaTbData *pTbData = (STSmaTbData *)POINTER_SHIFT(pData->data, len);
int32_t tbLen = 0;
while (true) {
if (tbLen >= pTbData->dataLen) {
break;
}
assert(pTbData->dataLen > 0);
STSmaColData *pColData = (STSmaColData *)POINTER_SHIFT(pTbData->data, tbLen);
char smaKey[SMA_KEY_LEN] = {0};
void *pSmaKey = &smaKey;
#if 0
printf("tsdbInsertTSmaDataSection: index %" PRIi64 ", skey %" PRIi64 " table[%" PRIi64 "]col[%" PRIu16 "]\n",
pData->indexUid, pData->skey, pTbData->tableUid, pColData->colId);
#endif
tsdbEncodeTSmaKey(pTbData->tableUid, pColData->colId, pData->skey, (void **)&pSmaKey);
if (tsdbInsertTSmaBlocks(pSmaH, smaKey, SMA_KEY_LEN, pColData->data, pColData->blockSize) < 0) {
tsdbWarn("vgId:%d insert tSma blocks failed since %s", REPO_ID(pTsdb), tstrerror(terrno));
}
tbLen += (sizeof(STSmaColData) + pColData->blockSize);
}
len += (sizeof(STSmaTbData) + pTbData->dataLen);
}
return TSDB_CODE_SUCCESS;
}
static int32_t tsdbInitTSmaWriteH(STSmaWriteH *pSmaH, STsdb *pTsdb, SSDataBlock *pData, int64_t interval, int8_t intervalUnit) {
static int32_t tsdbInitTSmaWriteH(STSmaWriteH *pSmaH, STsdb *pTsdb, const SArray *pDataBlocks, int64_t interval,
int8_t intervalUnit) {
pSmaH->pTsdb = pTsdb;
pSmaH->interval = tsdbGetIntervalByPrecision(interval, intervalUnit, REPO_CFG(pTsdb)->precision);
pSmaH->pData = pData;
pSmaH->interval = tsdbGetIntervalByPrecision(interval, intervalUnit, REPO_CFG(pTsdb)->precision, true);
pSmaH->pDataBlocks = pDataBlocks;
pSmaH->dFile.fid = TSDB_IVLD_FID;
return TSDB_CODE_SUCCESS;
}
......@@ -815,7 +767,7 @@ static void tsdbDestroyTSmaWriteH(STSmaWriteH *pSmaH) {
}
}
static int32_t tsdbSetTSmaDataFile(STSmaWriteH *pSmaH, STSmaDataWrapper *pData, int64_t indexUid, int32_t fid) {
static int32_t tsdbSetTSmaDataFile(STSmaWriteH *pSmaH, int64_t indexUid, int32_t fid) {
STsdb *pTsdb = pSmaH->pTsdb;
ASSERT(pSmaH->dFile.path == NULL && pSmaH->dFile.pDB == NULL);
......@@ -859,11 +811,10 @@ static int32_t tsdbGetTSmaDays(STsdb *pTsdb, int64_t interval, int32_t storageLe
* @param msg
* @return int32_t
*/
static int32_t tsdbInsertTSmaDataImpl(STsdb *pTsdb, char *msg) {
STsdbCfg *pCfg = REPO_CFG(pTsdb);
SSDataBlock *pData = (SSDataBlock *)msg;
SSmaEnv *pEnv = atomic_load_ptr(&pTsdb->pTSmaEnv);
int64_t indexUid = SMA_TEST_INDEX_UID;
static int32_t tsdbInsertTSmaDataImpl(STsdb *pTsdb, int64_t indexUid, const char *msg) {
STsdbCfg *pCfg = REPO_CFG(pTsdb);
const SArray *pDataBlocks = (const SArray *)msg;
SSmaEnv *pEnv = atomic_load_ptr(&pTsdb->pTSmaEnv);
if (pEnv == NULL) {
terrno = TSDB_CODE_INVALID_PTR;
......@@ -871,15 +822,15 @@ static int32_t tsdbInsertTSmaDataImpl(STsdb *pTsdb, char *msg) {
return terrno;
}
if (pData == NULL) {
if (pDataBlocks == NULL) {
terrno = TSDB_CODE_INVALID_PTR;
tsdbWarn("vgId:%d insert tSma data failed since pData is NULL", REPO_ID(pTsdb));
tsdbWarn("vgId:%d insert tSma data failed since pDataBlocks is NULL", REPO_ID(pTsdb));
return terrno;
}
if (taosArrayGetSize(pData->pDataBlock) <= 0) {
if (taosArrayGetSize(pDataBlocks) <= 0) {
terrno = TSDB_CODE_INVALID_PARA;
tsdbWarn("vgId:%d insert tSma data failed since pDataBlock is empty", REPO_ID(pTsdb));
tsdbWarn("vgId:%d insert tSma data failed since pDataBlocks is empty", REPO_ID(pTsdb));
return TSDB_CODE_FAILED;
}
......@@ -899,10 +850,9 @@ static int32_t tsdbInsertTSmaDataImpl(STsdb *pTsdb, char *msg) {
}
STSma *pSma = pItem->pSma;
STSmaWriteH tSmaH = {0};
if (tsdbInitTSmaWriteH(&tSmaH, pTsdb, pData, pSma->interval, pSma->intervalUnit) != 0) {
if (tsdbInitTSmaWriteH(&tSmaH, pTsdb, pDataBlocks, pSma->interval, pSma->intervalUnit) != 0) {
return TSDB_CODE_FAILED;
}
......@@ -921,33 +871,134 @@ static int32_t tsdbInsertTSmaDataImpl(STsdb *pTsdb, char *msg) {
int32_t storageLevel = tsdbGetSmaStorageLevel(pSma->interval, pSma->intervalUnit);
int32_t daysPerFile = tsdbGetTSmaDays(pTsdb, tSmaH.interval, storageLevel);
// key: skey + groupId
char smaKey[SMA_KEY_LEN] = {0};
char dataBuf[512] = {0};
void *pDataBuf = &dataBuf;
int32_t sz = taosArrayGetSize(pDataBlocks);
for (int32_t i = 0; i < sz; ++i) {
SSDataBlock *pDataBlock = *(SSDataBlock **)taosArrayGet(pDataBlocks, i);
int32_t colNum = pDataBlock->info.numOfCols;
int32_t rows = pDataBlock->info.rows;
int32_t rowSize = pDataBlock->info.rowSize;
int64_t groupId = pDataBlock->info.groupId;
for (int32_t j = 0; j < rows; ++j) {
printf("|");
TSKEY skey = TSKEY_INITIAL_VAL; // the start key of TS window by interval
void *pSmaKey = &smaKey;
int32_t tlen = 0;
for (int32_t k = 0; k < colNum; ++k) {
SColumnInfoData *pColInfoData = *(SColumnInfoData **)taosArrayGet(pDataBlock->pDataBlock, k);
void *var = POINTER_SHIFT(pColInfoData->pData, j * pColInfoData->info.bytes);
switch (pColInfoData->info.type) {
case TSDB_DATA_TYPE_TIMESTAMP:
skey = *(TSKEY *)var;
printf("==> skey = %" PRIi64 " groupId = %" PRId64 "|", skey, groupId);
tsdbEncodeTSmaKey(groupId, skey, &pSmaKey);
break;
case TSDB_DATA_TYPE_BOOL:
case TSDB_DATA_TYPE_UTINYINT:
printf(" %15d |", *(uint8_t *)var);
tlen += taosEncodeFixedU8(&pDataBuf, *(uint8_t *)var);
break;
case TSDB_DATA_TYPE_TINYINT:
printf(" %15d |", *(int8_t *)var);
tlen += taosEncodeFixedI8(&pDataBuf, *(int8_t *)var);
break;
case TSDB_DATA_TYPE_SMALLINT:
printf(" %15d |", *(int16_t *)var);
tlen += taosEncodeFixedI16(&pDataBuf, *(int16_t *)var);
break;
case TSDB_DATA_TYPE_USMALLINT:
printf(" %15d |", *(uint16_t *)var);
tlen += taosEncodeFixedU16(&pDataBuf, *(uint16_t *)var);
break;
case TSDB_DATA_TYPE_INT:
printf(" %15d |", *(int32_t *)var);
tlen += taosEncodeFixedI32(&pDataBuf, *(int32_t *)var);
break;
case TSDB_DATA_TYPE_FLOAT:
case TSDB_DATA_TYPE_UINT:
printf(" %15u |", *(uint32_t *)var);
tlen += taosEncodeFixedU32(&pDataBuf, *(uint32_t *)var);
break;
case TSDB_DATA_TYPE_BIGINT:
printf(" %15ld |", *(int64_t *)var);
tlen += taosEncodeFixedI64(&pDataBuf, *(int64_t *)var);
break;
case TSDB_DATA_TYPE_DOUBLE:
case TSDB_DATA_TYPE_UBIGINT:
printf(" %15lu |", *(uint64_t *)var);
tlen += taosEncodeFixedU64(&pDataBuf, *(uint64_t *)var);
break;
case TSDB_DATA_TYPE_NCHAR: {
char tmpChar[100] = {0};
strncpy(tmpChar, varDataVal(var), varDataLen(var));
printf(" %s |", tmpChar);
tlen += taosEncodeBinary(&pDataBuf, varDataVal(var), varDataLen(var));
break;
}
case TSDB_DATA_TYPE_VARCHAR: { // TSDB_DATA_TYPE_BINARY
char tmpChar[100] = {0};
strncpy(tmpChar, varDataVal(var), varDataLen(var));
printf(" %s |", tmpChar);
tlen += taosEncodeBinary(&pDataBuf, varDataVal(var), varDataLen(var));
break;
}
case TSDB_DATA_TYPE_VARBINARY:
// TODO: add binary/varbinary
TASSERT(0);
default:
printf("the column type %" PRIi16 " is undefined\n", pColInfoData->info.type);
TASSERT(0);
break;
}
}
if ((tlen > 0) && (skey != TSKEY_INITIAL_VAL)) {
int32_t fid = (int32_t)(TSDB_KEY_FID(skey, daysPerFile, pCfg->precision));
// Step 2: Set the DFile for storage of SMA index, and iterate/split the TSma data and store to B+Tree index
// file
// - Set and open the DFile or the B+Tree file
// TODO: tsdbStartTSmaCommit();
if (fid != tSmaH.dFile.fid) {
if (tSmaH.dFile.fid != TSDB_IVLD_FID) {
tsdbCloseDBF(&tSmaH.dFile);
}
tsdbSetTSmaDataFile(&tSmaH, indexUid, fid);
if (tsdbOpenDBF(pTsdb->pTSmaEnv->dbEnv, &tSmaH.dFile) != 0) {
tsdbWarn("vgId:%d open DB file %s failed since %s", REPO_ID(pTsdb),
tSmaH.dFile.path ? tSmaH.dFile.path : "path is NULL", tstrerror(terrno));
tsdbDestroyTSmaWriteH(&tSmaH);
tsdbUnRefSmaStat(pTsdb, pStat);
return TSDB_CODE_FAILED;
}
}
#if 0
int32_t fid = (int32_t)(TSDB_KEY_FID(pData->skey, daysPerFile, pCfg->precision));
if (tsdbInsertTSmaBlocks(&tSmaH, &smaKey, SMA_KEY_LEN, pDataBuf, tlen) != 0) {
tsdbWarn("vgId:%d insert tSma data blocks failed for index %" PRIi64 ", skey %" PRIi64 ", groupId %" PRIi64
" since %s",
REPO_ID(pTsdb), indexUid, skey, groupId, tstrerror(terrno));
tsdbDestroyTSmaWriteH(&tSmaH);
tsdbUnRefSmaStat(pTsdb, pStat);
return TSDB_CODE_FAILED;
} else {
tsdbWarn("vgId:%d insert tSma data blocks success for index %" PRIi64 ", skey %" PRIi64 ", groupId %" PRIi64,
REPO_ID(pTsdb), indexUid, skey, groupId);
}
// TODO:tsdbEndTSmaCommit();
// Step 2: Set the DFile for storage of SMA index, and iterate/split the TSma data and store to B+Tree index file
// - Set and open the DFile or the B+Tree file
// TODO: tsdbStartTSmaCommit();
tsdbSetTSmaDataFile(&tSmaH, pData, indexUid, fid);
if (tsdbOpenDBF(pTsdb->pTSmaEnv->dbEnv, &tSmaH.dFile) != 0) {
tsdbWarn("vgId:%d open DB file %s failed since %s", REPO_ID(pTsdb),
tSmaH.dFile.path ? tSmaH.dFile.path : "path is NULL", tstrerror(terrno));
tsdbDestroyTSmaWriteH(&tSmaH);
tsdbUnRefSmaStat(pTsdb, pStat);
return TSDB_CODE_FAILED;
}
// Step 3: reset the SSmaStat
tsdbResetExpiredWindow(pTsdb, SMA_ENV_STAT(pTsdb->pTSmaEnv), indexUid, skey);
} else {
tsdbWarn("vgId:%d invalid data skey:%" PRIi64 ", tlen %" PRIi32 " during insert tSma data for %" PRIi64,
REPO_ID(pTsdb), skey, tlen, indexUid);
}
if (tsdbInsertTSmaDataSection(&tSmaH, pData) != 0) {
tsdbWarn("vgId:%d insert tSma data section failed since %s", REPO_ID(pTsdb), tstrerror(terrno));
tsdbDestroyTSmaWriteH(&tSmaH);
tsdbUnRefSmaStat(pTsdb, pStat);
return TSDB_CODE_FAILED;
printf("\n");
}
}
// TODO:tsdbEndTSmaCommit();
// Step 3: reset the SSmaStat
tsdbResetExpiredWindow(pTsdb, SMA_ENV_STAT(pTsdb->pTSmaEnv), pData->indexUid, pData->skey);
#endif
tsdbDestroyTSmaWriteH(&tSmaH);
tsdbUnRefSmaStat(pTsdb, pStat);
return TSDB_CODE_SUCCESS;
......@@ -1002,7 +1053,7 @@ static int32_t tsdbDropTSmaDataImpl(STsdb *pTsdb, int64_t indexUid) {
// TODO:
}
static int32_t tsdbSetRSmaDataFile(STSmaWriteH *pSmaH, STSmaDataWrapper *pData, int32_t fid) {
static int32_t tsdbSetRSmaDataFile(STSmaWriteH *pSmaH, int32_t fid) {
STsdb *pTsdb = pSmaH->pTsdb;
char tSmaFile[TSDB_FILENAME_LEN] = {0};
......@@ -1012,11 +1063,11 @@ static int32_t tsdbSetRSmaDataFile(STSmaWriteH *pSmaH, STSmaDataWrapper *pData,
return TSDB_CODE_SUCCESS;
}
static int32_t tsdbInsertRSmaDataImpl(STsdb *pTsdb, char *msg) {
STsdbCfg *pCfg = REPO_CFG(pTsdb);
SSDataBlock *pData = (SSDataBlock *)msg;
SSmaEnv *pEnv = atomic_load_ptr(&pTsdb->pRSmaEnv);
int64_t indexUid = SMA_TEST_INDEX_UID;
static int32_t tsdbInsertRSmaDataImpl(STsdb *pTsdb, const char *msg) {
STsdbCfg *pCfg = REPO_CFG(pTsdb);
const SArray *pDataBlocks = (const SArray *)msg;
SSmaEnv *pEnv = atomic_load_ptr(&pTsdb->pRSmaEnv);
int64_t indexUid = SMA_TEST_INDEX_UID;
if (pEnv == NULL) {
terrno = TSDB_CODE_INVALID_PTR;
......@@ -1030,15 +1081,15 @@ static int32_t tsdbInsertRSmaDataImpl(STsdb *pTsdb, char *msg) {
return terrno;
}
if (pData == NULL) {
if (pDataBlocks == NULL) {
terrno = TSDB_CODE_INVALID_PTR;
tsdbWarn("vgId:%d insert rSma data failed since pData is NULL", REPO_ID(pTsdb));
tsdbWarn("vgId:%d insert rSma data failed since pDataBlocks is NULL", REPO_ID(pTsdb));
return terrno;
}
if (taosArrayGetSize(pData->pDataBlock) <= 0) {
if (taosArrayGetSize(pDataBlocks) <= 0) {
terrno = TSDB_CODE_INVALID_PARA;
tsdbWarn("vgId:%d insert rSma data failed since pDataBlock is empty", REPO_ID(pTsdb));
tsdbWarn("vgId:%d insert rSma data failed since pDataBlocks is empty", REPO_ID(pTsdb));
return TSDB_CODE_FAILED;
}
......@@ -1061,12 +1112,12 @@ static int32_t tsdbInsertRSmaDataImpl(STsdb *pTsdb, char *msg) {
STSmaWriteH tSmaH = {0};
if (tsdbInitTSmaWriteH(&tSmaH, pTsdb, pData, pSma->interval, pSma->intervalUnit) != 0) {
if (tsdbInitTSmaWriteH(&tSmaH, pTsdb, pDataBlocks, pSma->interval, pSma->intervalUnit) != 0) {
return TSDB_CODE_FAILED;
}
char rPath[TSDB_FILENAME_LEN] = {0};
char aPath[TSDB_FILENAME_LEN] = {0};
char rPath[TSDB_FILENAME_LEN] = {0};
char aPath[TSDB_FILENAME_LEN] = {0};
snprintf(rPath, TSDB_FILENAME_LEN, "%s%s%" PRIi64, SMA_ENV_PATH(pEnv), TD_DIRSEP, indexUid);
tfsAbsoluteName(REPO_TFS(pTsdb), SMA_ENV_DID(pEnv), rPath, aPath);
if (!taosCheckExistFile(aPath)) {
......@@ -1078,7 +1129,7 @@ static int32_t tsdbInsertRSmaDataImpl(STsdb *pTsdb, char *msg) {
// Step 1: Judge the storage level and days
int32_t storageLevel = tsdbGetSmaStorageLevel(pSma->interval, pSma->intervalUnit);
int32_t daysPerFile = tsdbGetTSmaDays(pTsdb, tSmaH.interval, storageLevel);
#if 0
#if 0
int32_t fid = (int32_t)(TSDB_KEY_FID(pData->skey, daysPerFile, pCfg->precision));
// Step 2: Set the DFile for storage of SMA index, and iterate/split the TSma data and store to B+Tree index file
......@@ -1119,7 +1170,7 @@ static int32_t tsdbInsertRSmaDataImpl(STsdb *pTsdb, char *msg) {
*/
static int32_t tsdbInitTSmaReadH(STSmaReadH *pSmaH, STsdb *pTsdb, int64_t interval, int8_t intervalUnit) {
pSmaH->pTsdb = pTsdb;
pSmaH->interval = tsdbGetIntervalByPrecision(interval, intervalUnit, REPO_CFG(pTsdb)->precision);
pSmaH->interval = tsdbGetIntervalByPrecision(interval, intervalUnit, REPO_CFG(pTsdb)->precision, true);
pSmaH->storageLevel = tsdbGetSmaStorageLevel(interval, intervalUnit);
pSmaH->days = tsdbGetTSmaDays(pTsdb, pSmaH->interval, pSmaH->storageLevel);
}
......@@ -1185,17 +1236,11 @@ static bool tsdbSetAndOpenTSmaFile(STSmaReadH *pReadH, TSKEY *queryKey) {
* @param pTsdb Return the data between queryWin and fill the pData.
* @param pData
* @param indexUid
* @param interval
* @param intervalUnit
* @param tableUid
* @param colId
* @param pQuerySKey
* @param nMaxResult The query invoker should control the nMaxResult need to return to avoid OOM.
* @return int32_t
*/
static int32_t tsdbGetTSmaDataImpl(STsdb *pTsdb, STSmaDataWrapper *pData, int64_t indexUid, int64_t interval,
int8_t intervalUnit, tb_uid_t tableUid, col_id_t colId, TSKEY querySKey,
int32_t nMaxResult) {
static int32_t tsdbGetTSmaDataImpl(STsdb *pTsdb, char *pData, int64_t indexUid, TSKEY querySKey, int32_t nMaxResult) {
SSmaEnv *pEnv = atomic_load_ptr(&pTsdb->pTSmaEnv);
if (!pEnv) {
......@@ -1243,13 +1288,18 @@ static int32_t tsdbGetTSmaDataImpl(STsdb *pTsdb, STSmaDataWrapper *pData, int64_
tsdbDebug("vgId:%d skey %" PRIi64 " of window not in expired window for index %" PRIi64, REPO_ID(pTsdb), querySKey,
indexUid);
}
tsdbUnRefSmaStat(pTsdb, SMA_ENV_STAT(pTsdb->pTSmaEnv));
STSma *pTSma = pItem->pSma;
#endif
STSmaReadH tReadH = {0};
tsdbInitTSmaReadH(&tReadH, pTsdb, interval, intervalUnit);
tsdbInitTSmaReadH(&tReadH, pTsdb, pTSma->interval, pTSma->intervalUnit);
tsdbCloseDBF(&tReadH.dFile);
tsdbUnRefSmaStat(pTsdb, SMA_ENV_STAT(pTsdb->pTSmaEnv));
tsdbInitTSmaFile(&tReadH, indexUid, querySKey);
if (tsdbOpenDBF(SMA_ENV_ENV(pTsdb->pTSmaEnv), &tReadH.dFile) != 0) {
......@@ -1257,21 +1307,19 @@ static int32_t tsdbGetTSmaDataImpl(STsdb *pTsdb, STSmaDataWrapper *pData, int64_
return TSDB_CODE_FAILED;
}
char smaKey[SMA_KEY_LEN] = {0};
void *pSmaKey = &smaKey;
tsdbEncodeTSmaKey(tableUid, colId, querySKey, (void **)&pSmaKey);
char smaKey[SMA_KEY_LEN] = {0};
void *pSmaKey = &smaKey;
int64_t queryGroupId = 1;
tsdbEncodeTSmaKey(queryGroupId, querySKey, (void **)&pSmaKey);
tsdbDebug("vgId:%d get sma data from %s: smaKey %" PRIx64 "-%" PRIu16 "-%" PRIx64 ", keyLen %d", REPO_ID(pTsdb),
tReadH.dFile.path, *(tb_uid_t *)smaKey, *(uint16_t *)POINTER_SHIFT(smaKey, 8),
*(int64_t *)POINTER_SHIFT(smaKey, 10), SMA_KEY_LEN);
tsdbDebug("vgId:%d get sma data from %s: smaKey %" PRIx64 "-%" PRIx64 ", keyLen %d", REPO_ID(pTsdb),
tReadH.dFile.path, *(int64_t *)smaKey, *(int64_t *)POINTER_SHIFT(smaKey, 8), SMA_KEY_LEN);
void *result = NULL;
uint32_t valueSize = 0;
if ((result = tsdbGetSmaDataByKey(&tReadH.dFile, smaKey, SMA_KEY_LEN, &valueSize)) == NULL) {
tsdbWarn("vgId:%d get sma data failed from smaIndex %" PRIi64 ", smaKey %" PRIx64 "-%" PRIu16 "-%" PRIx64
" since %s",
REPO_ID(pTsdb), indexUid, *(tb_uid_t *)smaKey, *(uint16_t *)POINTER_SHIFT(smaKey, 8),
*(int64_t *)POINTER_SHIFT(smaKey, 10), tstrerror(terrno));
tsdbWarn("vgId:%d get sma data failed from smaIndex %" PRIi64 ", smaKey %" PRIx64 "-%" PRIx64 " since %s",
REPO_ID(pTsdb), indexUid, *(int64_t *)smaKey, *(int64_t *)POINTER_SHIFT(smaKey, 8), tstrerror(terrno));
tsdbCloseDBF(&tReadH.dFile);
return TSDB_CODE_FAILED;
}
......@@ -1347,11 +1395,10 @@ int32_t tsdbRemoveTSmaData(STsdb *pTsdb, void *smaIndex, STimeWindow *pWin) {
}
#endif
// TODO: Who is responsible for resource allocate and release?
int32_t tsdbInsertTSmaData(STsdb *pTsdb, char *msg) {
int32_t tsdbInsertTSmaData(STsdb *pTsdb, int64_t indexUid, const char *msg) {
int32_t code = TSDB_CODE_SUCCESS;
if ((code = tsdbInsertTSmaDataImpl(pTsdb, msg)) < 0) {
if ((code = tsdbInsertTSmaDataImpl(pTsdb, indexUid, msg)) < 0) {
tsdbWarn("vgId:%d insert tSma data failed since %s", REPO_ID(pTsdb), tstrerror(terrno));
}
return code;
......@@ -1373,18 +1420,14 @@ int32_t tsdbInsertRSmaData(STsdb *pTsdb, char *msg) {
return code;
}
int32_t tsdbGetTSmaData(STsdb *pTsdb, STSmaDataWrapper *pData, int64_t indexUid, int64_t interval, int8_t intervalUnit,
tb_uid_t tableUid, col_id_t colId, TSKEY querySKey, int32_t nMaxResult) {
int32_t tsdbGetTSmaData(STsdb *pTsdb, char*pData, int64_t indexUid, TSKEY querySKey, int32_t nMaxResult) {
int32_t code = TSDB_CODE_SUCCESS;
if ((code = tsdbGetTSmaDataImpl(pTsdb, pData, indexUid, interval, intervalUnit, tableUid, colId, querySKey,
nMaxResult)) < 0) {
if ((code = tsdbGetTSmaDataImpl(pTsdb, pData, indexUid, querySKey, nMaxResult)) < 0) {
tsdbWarn("vgId:%d get tSma data failed since %s", REPO_ID(pTsdb), tstrerror(terrno));
}
return code;
}
int32_t tsdbDropTSmaData(STsdb *pTsdb, int64_t indexUid) {
int32_t code = TSDB_CODE_SUCCESS;
if ((code = tsdbDropTSmaDataImpl(pTsdb, indexUid)) < 0) {
......
......@@ -41,7 +41,7 @@ int vnodeProcessQueryMsg(SVnode *pVnode, SRpcMsg *pMsg) {
}
}
int vnodeProcessFetchMsg(SVnode *pVnode, SRpcMsg *pMsg) {
int vnodeProcessFetchMsg(SVnode *pVnode, SRpcMsg *pMsg, SQueueInfo *pInfo) {
vTrace("message in fetch queue is processing");
char *msgstr = POINTER_SHIFT(pMsg->pCont, sizeof(SMsgHead));
int32_t msgLen = pMsg->contLen - sizeof(SMsgHead);
......@@ -69,9 +69,9 @@ int vnodeProcessFetchMsg(SVnode *pVnode, SRpcMsg *pMsg) {
return tqProcessPollReq(pVnode->pTq, pMsg);
case TDMT_VND_TASK_PIPE_EXEC:
case TDMT_VND_TASK_MERGE_EXEC:
return tqProcessTaskExec(pVnode->pTq, msgstr, msgLen);
return tqProcessTaskExec(pVnode->pTq, msgstr, msgLen, pInfo->workerId);
case TDMT_VND_STREAM_TRIGGER:
return tqProcessStreamTrigger(pVnode->pTq, pMsg->pCont, pMsg->contLen);
return tqProcessStreamTrigger(pVnode->pTq, pMsg->pCont, pMsg->contLen, pInfo->workerId);
case TDMT_VND_QUERY_HEARTBEAT:
return qWorkerProcessHbMsg(pVnode, pVnode->pQuery, pMsg);
default:
......
......@@ -17,7 +17,9 @@
void smaHandleRes(void *pVnode, int64_t smaId, const SArray *data) {
// TODO
blockDebugShowData(data);
tsdbInsertTSmaData(((SVnode *)pVnode)->pTsdb, smaId, (const char *)data);
}
void vnodeProcessWMsgs(SVnode *pVnode, SArray *pMsgs) {
......@@ -184,24 +186,25 @@ int vnodeApplyWMsg(SVnode *pVnode, SRpcMsg *pMsg, SRpcMsg **pRsp) {
}
} break;
case TDMT_VND_TASK_WRITE_EXEC: {
if (tqProcessTaskExec(pVnode->pTq, POINTER_SHIFT(pMsg->pCont, sizeof(SMsgHead)),
pMsg->contLen - sizeof(SMsgHead)) < 0) {
if (tqProcessTaskExec(pVnode->pTq, POINTER_SHIFT(pMsg->pCont, sizeof(SMsgHead)), pMsg->contLen - sizeof(SMsgHead),
0) < 0) {
}
} break;
case TDMT_VND_CREATE_SMA: { // timeRangeSMA
#if 1
SSmaCfg vCreateSmaReq = {0};
if (tDeserializeSVCreateTSmaReq(POINTER_SHIFT(pMsg->pCont, sizeof(SMsgHead)), &vCreateSmaReq) == NULL) {
terrno = TSDB_CODE_OUT_OF_MEMORY;
vWarn("vgId%d: TDMT_VND_CREATE_SMA received but deserialize failed since %s", pVnode->config.vgId, terrstr(terrno));
vWarn("vgId%d: TDMT_VND_CREATE_SMA received but deserialize failed since %s", pVnode->config.vgId,
terrstr(terrno));
return -1;
}
vWarn("vgId%d: TDMT_VND_CREATE_SMA received for %s:%" PRIi64, pVnode->config.vgId, vCreateSmaReq.tSma.indexName,
vCreateSmaReq.tSma.indexUid);
// record current timezone of server side
tstrncpy(vCreateSmaReq.tSma.timezone, tsTimezoneStr, TD_TIMEZONE_LEN);
vCreateSmaReq.tSma.timezoneInt = tsTimezone;
if (metaCreateTSma(pVnode->pMeta, &vCreateSmaReq) < 0) {
// TODO: handle error
......
......@@ -15,6 +15,7 @@
#include <gtest/gtest.h>
#include <tsdbDef.h>
#include <taoserror.h>
#include <tglobal.h>
#include <iostream>
......@@ -58,20 +59,21 @@ TEST(testCase, unionEncodeDecodeTest) {
void *buf = taosMemoryMalloc(1024);
void *pBuf = buf;
void *qBuf = buf;
int32_t tlen = 0;
tlen += taosEncodeFixedU8(&buf, sut.info);
tlen += taosEncodeFixedI16(&buf, sut.nBSmaCols);
tlen += taosEncodeFixedU8(&pBuf, sut.info);
tlen += taosEncodeFixedI16(&pBuf, sut.nBSmaCols);
for (col_id_t i = 0; i < sut.nBSmaCols; ++i) {
tlen += taosEncodeFixedI16(&buf, sut.pBSmaCols[i]);
tlen += taosEncodeFixedI16(&pBuf, sut.pBSmaCols[i]);
}
SUnionTest dut = {0};
pBuf = taosDecodeFixedU8(pBuf, &dut.info);
pBuf = taosDecodeFixedI16(pBuf, &dut.nBSmaCols);
qBuf = taosDecodeFixedU8(qBuf, &dut.info);
qBuf = taosDecodeFixedI16(qBuf, &dut.nBSmaCols);
if (dut.nBSmaCols > 0) {
dut.pBSmaCols = (col_id_t *)taosMemoryMalloc(dut.nBSmaCols * sizeof(col_id_t));
for (col_id_t i = 0; i < dut.nBSmaCols; ++i) {
pBuf = taosDecodeFixedI16(pBuf, dut.pBSmaCols + i);
qBuf = taosDecodeFixedI16(qBuf, dut.pBSmaCols + i);
}
} else {
dut.pBSmaCols = NULL;
......@@ -80,13 +82,17 @@ TEST(testCase, unionEncodeDecodeTest) {
printf("sut.rollup=%" PRIu8 ", type=%" PRIu8 ", info=%" PRIu8 "\n", sut.rollup, sut.type, sut.info);
printf("dut.rollup=%" PRIu8 ", type=%" PRIu8 ", info=%" PRIu8 "\n", dut.rollup, dut.type, dut.info);
ASSERT_EQ(sut.rollup, dut.rollup);
ASSERT_EQ(sut.type, dut.type);
ASSERT_EQ(sut.nBSmaCols, dut.nBSmaCols);
EXPECT_EQ(sut.rollup, dut.rollup);
EXPECT_EQ(sut.type, dut.type);
EXPECT_EQ(sut.nBSmaCols, dut.nBSmaCols);
for (col_id_t i = 0; i < sut.nBSmaCols; ++i) {
ASSERT_EQ(*(col_id_t *)(sut.pBSmaCols + i), sut.pBSmaCols[i]);
ASSERT_EQ(*(col_id_t *)(sut.pBSmaCols + i), dut.pBSmaCols[i]);
EXPECT_EQ(*(col_id_t *)(sut.pBSmaCols + i), sut.pBSmaCols[i]);
EXPECT_EQ(*(col_id_t *)(sut.pBSmaCols + i), dut.pBSmaCols[i]);
}
taosMemoryFreeClear(buf);
taosMemoryFreeClear(dut.pBSmaCols);
taosMemoryFreeClear(sut.pBSmaCols);
}
#if 1
TEST(testCase, tSma_Meta_Encode_Decode_Test) {
......@@ -106,37 +112,37 @@ TEST(testCase, tSma_Meta_Encode_Decode_Test) {
uint32_t bufLen = tEncodeTSmaWrapper(NULL, &tSmaWrapper);
void *buf = taosMemoryCalloc(1, bufLen);
ASSERT_NE(buf, nullptr);
EXPECT_NE(buf, nullptr);
STSmaWrapper *pSW = (STSmaWrapper *)buf;
uint32_t len = tEncodeTSmaWrapper(&buf, &tSmaWrapper);
ASSERT_EQ(len, bufLen);
EXPECT_EQ(len, bufLen);
// decode
STSmaWrapper dstTSmaWrapper = {0};
void *result = tDecodeTSmaWrapper(pSW, &dstTSmaWrapper);
ASSERT_NE(result, nullptr);
EXPECT_NE(result, nullptr);
ASSERT_EQ(tSmaWrapper.number, dstTSmaWrapper.number);
EXPECT_EQ(tSmaWrapper.number, dstTSmaWrapper.number);
for (int i = 0; i < tSmaWrapper.number; ++i) {
STSma *pSma = tSmaWrapper.tSma + i;
STSma *qSma = dstTSmaWrapper.tSma + i;
ASSERT_EQ(pSma->version, qSma->version);
ASSERT_EQ(pSma->intervalUnit, qSma->intervalUnit);
ASSERT_EQ(pSma->slidingUnit, qSma->slidingUnit);
ASSERT_STRCASEEQ(pSma->indexName, qSma->indexName);
ASSERT_EQ(pSma->timezoneInt, qSma->timezoneInt);
ASSERT_EQ(pSma->indexUid, qSma->indexUid);
ASSERT_EQ(pSma->tableUid, qSma->tableUid);
ASSERT_EQ(pSma->interval, qSma->interval);
ASSERT_EQ(pSma->sliding, qSma->sliding);
ASSERT_EQ(pSma->exprLen, qSma->exprLen);
ASSERT_STRCASEEQ(pSma->expr, qSma->expr);
ASSERT_EQ(pSma->tagsFilterLen, qSma->tagsFilterLen);
ASSERT_STRCASEEQ(pSma->tagsFilter, qSma->tagsFilter);
EXPECT_EQ(pSma->version, qSma->version);
EXPECT_EQ(pSma->intervalUnit, qSma->intervalUnit);
EXPECT_EQ(pSma->slidingUnit, qSma->slidingUnit);
EXPECT_STRCASEEQ(pSma->indexName, qSma->indexName);
EXPECT_EQ(pSma->timezoneInt, qSma->timezoneInt);
EXPECT_EQ(pSma->indexUid, qSma->indexUid);
EXPECT_EQ(pSma->tableUid, qSma->tableUid);
EXPECT_EQ(pSma->interval, qSma->interval);
EXPECT_EQ(pSma->sliding, qSma->sliding);
EXPECT_EQ(pSma->exprLen, qSma->exprLen);
EXPECT_STRCASEEQ(pSma->expr, qSma->expr);
EXPECT_EQ(pSma->tagsFilterLen, qSma->tagsFilterLen);
EXPECT_STRCASEEQ(pSma->tagsFilter, qSma->tagsFilter);
}
// resource release
......@@ -172,12 +178,12 @@ TEST(testCase, tSma_metaDB_Put_Get_Del_Test) {
tSma.exprLen = strlen(expr);
tSma.expr = (char *)taosMemoryCalloc(1, tSma.exprLen + 1);
ASSERT_NE(tSma.expr, nullptr);
EXPECT_NE(tSma.expr, nullptr);
tstrncpy(tSma.expr, expr, tSma.exprLen + 1);
tSma.tagsFilterLen = strlen(tagsFilter);
tSma.tagsFilter = (char *)taosMemoryCalloc(tSma.tagsFilterLen + 1, 1);
ASSERT_NE(tSma.tagsFilter, nullptr);
EXPECT_NE(tSma.tagsFilter, nullptr);
tstrncpy(tSma.tagsFilter, tagsFilter, tSma.tagsFilterLen + 1);
SMeta *pMeta = NULL;
......@@ -189,7 +195,7 @@ TEST(testCase, tSma_metaDB_Put_Get_Del_Test) {
pMeta = metaOpen(smaTestDir, pMetaCfg, NULL);
assert(pMeta != NULL);
// save index 1
ASSERT_EQ(metaSaveSmaToDB(pMeta, pSmaCfg), 0);
EXPECT_EQ(metaSaveSmaToDB(pMeta, pSmaCfg), 0);
pSmaCfg->indexUid = indexUid2;
tstrncpy(pSmaCfg->indexName, smaIndexName2, TSDB_INDEX_NAME_LEN);
......@@ -200,7 +206,7 @@ TEST(testCase, tSma_metaDB_Put_Get_Del_Test) {
pSmaCfg->sliding = 5;
// save index 2
ASSERT_EQ(metaSaveSmaToDB(pMeta, pSmaCfg), 0);
EXPECT_EQ(metaSaveSmaToDB(pMeta, pSmaCfg), 0);
// get value by indexName
STSma *qSmaCfg = NULL;
......@@ -210,8 +216,8 @@ TEST(testCase, tSma_metaDB_Put_Get_Del_Test) {
printf("timezone1 = %" PRIi8 "\n", qSmaCfg->timezoneInt);
printf("expr1 = %s\n", qSmaCfg->expr != NULL ? qSmaCfg->expr : "");
printf("tagsFilter1 = %s\n", qSmaCfg->tagsFilter != NULL ? qSmaCfg->tagsFilter : "");
ASSERT_STRCASEEQ(qSmaCfg->indexName, smaIndexName1);
ASSERT_EQ(qSmaCfg->tableUid, tSma.tableUid);
EXPECT_STRCASEEQ(qSmaCfg->indexName, smaIndexName1);
EXPECT_EQ(qSmaCfg->tableUid, tSma.tableUid);
tdDestroyTSma(qSmaCfg);
taosMemoryFreeClear(qSmaCfg);
......@@ -221,8 +227,8 @@ TEST(testCase, tSma_metaDB_Put_Get_Del_Test) {
printf("timezone2 = %" PRIi8 "\n", qSmaCfg->timezoneInt);
printf("expr2 = %s\n", qSmaCfg->expr != NULL ? qSmaCfg->expr : "");
printf("tagsFilter2 = %s\n", qSmaCfg->tagsFilter != NULL ? qSmaCfg->tagsFilter : "");
ASSERT_STRCASEEQ(qSmaCfg->indexName, smaIndexName2);
ASSERT_EQ(qSmaCfg->interval, tSma.interval);
EXPECT_STRCASEEQ(qSmaCfg->indexName, smaIndexName2);
EXPECT_EQ(qSmaCfg->interval, tSma.interval);
tdDestroyTSma(qSmaCfg);
taosMemoryFreeClear(qSmaCfg);
......@@ -238,25 +244,25 @@ TEST(testCase, tSma_metaDB_Put_Get_Del_Test) {
printf("indexName = %s\n", indexName);
++indexCnt;
}
ASSERT_EQ(indexCnt, nCntTSma);
EXPECT_EQ(indexCnt, nCntTSma);
metaCloseSmaCurosr(pSmaCur);
// get wrapper by table uid
STSmaWrapper *pSW = metaGetSmaInfoByTable(pMeta, tbUid);
assert(pSW != NULL);
ASSERT_EQ(pSW->number, nCntTSma);
ASSERT_STRCASEEQ(pSW->tSma->indexName, smaIndexName1);
ASSERT_EQ(pSW->tSma->timezoneInt, timezone);
ASSERT_STRCASEEQ(pSW->tSma->expr, expr);
ASSERT_STRCASEEQ(pSW->tSma->tagsFilter, tagsFilter);
ASSERT_EQ(pSW->tSma->indexUid, indexUid1);
ASSERT_EQ(pSW->tSma->tableUid, tbUid);
ASSERT_STRCASEEQ((pSW->tSma + 1)->indexName, smaIndexName2);
ASSERT_EQ((pSW->tSma + 1)->timezoneInt, timezone);
ASSERT_STRCASEEQ((pSW->tSma + 1)->expr, expr);
ASSERT_STRCASEEQ((pSW->tSma + 1)->tagsFilter, tagsFilter);
ASSERT_EQ((pSW->tSma + 1)->indexUid, indexUid2);
ASSERT_EQ((pSW->tSma + 1)->tableUid, tbUid);
EXPECT_EQ(pSW->number, nCntTSma);
EXPECT_STRCASEEQ(pSW->tSma->indexName, smaIndexName1);
EXPECT_EQ(pSW->tSma->timezoneInt, timezone);
EXPECT_STRCASEEQ(pSW->tSma->expr, expr);
EXPECT_STRCASEEQ(pSW->tSma->tagsFilter, tagsFilter);
EXPECT_EQ(pSW->tSma->indexUid, indexUid1);
EXPECT_EQ(pSW->tSma->tableUid, tbUid);
EXPECT_STRCASEEQ((pSW->tSma + 1)->indexName, smaIndexName2);
EXPECT_EQ((pSW->tSma + 1)->timezoneInt, timezone);
EXPECT_STRCASEEQ((pSW->tSma + 1)->expr, expr);
EXPECT_STRCASEEQ((pSW->tSma + 1)->tagsFilter, tagsFilter);
EXPECT_EQ((pSW->tSma + 1)->indexUid, indexUid2);
EXPECT_EQ((pSW->tSma + 1)->tableUid, tbUid);
tdDestroyTSmaWrapper(pSW);
taosMemoryFreeClear(pSW);
......@@ -268,7 +274,7 @@ TEST(testCase, tSma_metaDB_Put_Get_Del_Test) {
printf("metaGetSmaTbUids: uid[%" PRIu32 "] = %" PRIi64 "\n", i, *(tb_uid_t *)taosArrayGet(pUids, i));
// printf("metaGetSmaTbUids: index[%" PRIu32 "] = %s", i, (char *)taosArrayGet(pUids, i));
}
ASSERT_EQ(taosArrayGetSize(pUids), 1);
EXPECT_EQ(taosArrayGetSize(pUids), 1);
taosArrayDestroy(pUids);
// resource release
......@@ -280,7 +286,7 @@ TEST(testCase, tSma_metaDB_Put_Get_Del_Test) {
}
#endif
#if 0
#if 1
TEST(testCase, tSma_Data_Insert_Query_Test) {
// step 1: prepare meta
const char *smaIndexName1 = "sma_index_test_1";
......@@ -299,9 +305,9 @@ TEST(testCase, tSma_Data_Insert_Query_Test) {
// encode
STSma tSma = {0};
tSma.version = 0;
tSma.intervalUnit = TIME_UNIT_DAY;
tSma.intervalUnit = TIME_UNIT_MINUTE;
tSma.interval = 1;
tSma.slidingUnit = TIME_UNIT_HOUR;
tSma.slidingUnit = TIME_UNIT_MINUTE;
tSma.sliding = 1; // sliding = interval when it's convert window
tSma.indexUid = indexUid1;
tstrncpy(tSma.indexName, smaIndexName1, TSDB_INDEX_NAME_LEN);
......@@ -310,12 +316,12 @@ TEST(testCase, tSma_Data_Insert_Query_Test) {
tSma.exprLen = strlen(expr);
tSma.expr = (char *)taosMemoryCalloc(1, tSma.exprLen + 1);
ASSERT_NE(tSma.expr, nullptr);
EXPECT_NE(tSma.expr, nullptr);
tstrncpy(tSma.expr, expr, tSma.exprLen + 1);
tSma.tagsFilterLen = strlen(tagsFilter);
tSma.tagsFilter = (char *)taosMemoryCalloc(1, tSma.tagsFilterLen + 1);
ASSERT_NE(tSma.tagsFilter, nullptr);
EXPECT_NE(tSma.tagsFilter, nullptr);
tstrncpy(tSma.tagsFilter, tagsFilter, tSma.tagsFilterLen + 1);
SMeta *pMeta = NULL;
......@@ -327,11 +333,11 @@ TEST(testCase, tSma_Data_Insert_Query_Test) {
pMeta = metaOpen(smaTestDir, pMetaCfg, NULL);
assert(pMeta != NULL);
// save index 1
ASSERT_EQ(metaSaveSmaToDB(pMeta, pSmaCfg), 0);
EXPECT_EQ(metaSaveSmaToDB(pMeta, pSmaCfg), 0);
// step 2: insert data
STsdb *pTsdb = (STsdb *)taosMemoryCalloc(1, sizeof(STsdb));
STsdbCfg *pCfg = &pTsdb->config;
STsdb *pTsdb = (STsdb *)taosMemoryCalloc(1, sizeof(STsdb));
STsdbCfg *pCfg = &pTsdb->config;
pTsdb->pMeta = pMeta;
pTsdb->vgId = 2;
......@@ -364,7 +370,7 @@ TEST(testCase, tSma_Data_Insert_Query_Test) {
strncpy(pDisks.dir, "/var/lib/taos", TSDB_FILENAME_LEN);
int32_t numOfDisks = 1;
pTsdb->pTfs = tfsOpen(&pDisks, numOfDisks);
ASSERT_NE(pTsdb->pTfs, nullptr);
EXPECT_NE(pTsdb->pTfs, nullptr);
// generate SSubmitReq msg and update expired window
int16_t schemaVer = 0;
......@@ -374,7 +380,7 @@ TEST(testCase, tSma_Data_Insert_Query_Test) {
uint32_t msgLen = sizeof(SSubmitReq) + mockBlkNum * sizeof(SSubmitBlk) + mockBlkNum * mockRowNum * mockRowLen;
SSubmitReq *pMsg = (SSubmitReq *)taosMemoryCalloc(1, msgLen);
ASSERT_NE(pMsg, nullptr);
EXPECT_NE(pMsg, nullptr);
pMsg->version = htobe64(schemaVer);
pMsg->numOfBlocks = htonl(mockBlkNum);
pMsg->length = htonl(msgLen);
......@@ -400,20 +406,99 @@ TEST(testCase, tSma_Data_Insert_Query_Test) {
}
}
ASSERT_EQ(tdScanAndConvertSubmitMsg(pMsg), TSDB_CODE_SUCCESS);
EXPECT_EQ(tdScanAndConvertSubmitMsg(pMsg), TSDB_CODE_SUCCESS);
ASSERT_EQ(tsdbUpdateSmaWindow(pTsdb, (const char *)pMsg), 0);
EXPECT_EQ(tsdbUpdateSmaWindow(pTsdb, (const char *)pMsg), 0);
// init
int32_t allocCnt = 0;
int32_t allocStep = 16384;
int32_t buffer = 1024;
void *buf = NULL;
ASSERT_EQ(tsdbMakeRoom(&buf, allocStep), 0);
int32_t bufSize = taosTSizeof(buf);
int32_t numOfTables = 10;
col_id_t numOfCols = 4096;
ASSERT_GT(numOfCols, 0);
const int32_t tSmaGroupSize = 4;
const int32_t tSmaNumOfTags = 2;
const int64_t tSmaGroupId = 12345670;
const col_id_t tSmaNumOfCols = 9; // binary/nchar/varbinary/varchar are only used for tags for group by conditions.
const int32_t tSmaNumOfRows = 2;
SArray *pDataBlocks = taosArrayInit(tSmaGroupSize, sizeof(SSDataBlock *));
EXPECT_NE(pDataBlocks, nullptr);
int32_t tSmaTypeArray[tSmaNumOfCols] = {TSDB_DATA_TYPE_TIMESTAMP, TSDB_DATA_TYPE_BOOL, TSDB_DATA_TYPE_INT,
TSDB_DATA_TYPE_UBIGINT, TSDB_DATA_TYPE_SMALLINT, TSDB_DATA_TYPE_FLOAT,
TSDB_DATA_TYPE_DOUBLE, TSDB_DATA_TYPE_VARCHAR, TSDB_DATA_TYPE_NCHAR};
// last 2 columns for group by tags
// int32_t tSmaTypeArray[tSmaNumOfCols] = {TSDB_DATA_TYPE_TIMESTAMP, TSDB_DATA_TYPE_BOOL};
const char *tSmaGroupbyTags[tSmaGroupSize * tSmaNumOfTags] = {"BeiJing", "HaiDian", "BeiJing", "ChaoYang",
"ShangHai", "PuDong", "ShangHai", "MinHang"};
TSKEY tSmaSKeyMs = (int64_t)1648535332 * 1000;
int64_t tSmaIntervalMs = tSma.interval * 60 * 1000;
int64_t tSmaInitVal = 0;
for (int32_t g = 0; g < tSmaGroupSize; ++g) {
SSDataBlock *pDataBlock = (SSDataBlock *)taosMemoryCalloc(1, sizeof(SSDataBlock));
EXPECT_NE(pDataBlock, nullptr);
pDataBlock->pBlockAgg = NULL;
pDataBlock->info.numOfCols = tSmaNumOfCols;
pDataBlock->info.rows = tSmaNumOfRows;
pDataBlock->info.groupId = tSmaGroupId + g;
pDataBlock->pDataBlock = taosArrayInit(tSmaNumOfCols, sizeof(SColumnInfoData *));
EXPECT_NE(pDataBlock->pDataBlock, nullptr);
for (int32_t c = 0; c < tSmaNumOfCols; ++c) {
SColumnInfoData *pColInfoData = (SColumnInfoData *)taosMemoryCalloc(1, sizeof(SColumnInfoData));
EXPECT_NE(pColInfoData, nullptr);
pColInfoData->info.type = tSmaTypeArray[c];
if (IS_VAR_DATA_TYPE(pColInfoData->info.type)) {
pColInfoData->info.bytes = 100; // update accordingly
} else {
pColInfoData->info.bytes = TYPE_BYTES[pColInfoData->info.type];
}
pColInfoData->pData = (char *)taosMemoryCalloc(1, tSmaNumOfRows * pColInfoData->info.bytes);
for (int32_t r = 0; r < tSmaNumOfRows; ++r) {
void *pCellData = pColInfoData->pData + r * pColInfoData->info.bytes;
switch (pColInfoData->info.type) {
case TSDB_DATA_TYPE_TIMESTAMP:
*(TSKEY *)pCellData = tSmaSKeyMs + tSmaIntervalMs * r;
break;
case TSDB_DATA_TYPE_BOOL:
*(bool *)pCellData = (bool)tSmaInitVal++;
break;
case TSDB_DATA_TYPE_INT:
*(int *)pCellData = (int)tSmaInitVal++;
break;
case TSDB_DATA_TYPE_UBIGINT:
*(uint64_t *)pCellData = (uint64_t)tSmaInitVal++;
break;
case TSDB_DATA_TYPE_SMALLINT:
*(int16_t *)pCellData = (int16_t)tSmaInitVal++;
break;
case TSDB_DATA_TYPE_FLOAT:
*(float *)pCellData = (float)tSmaInitVal++;
break;
case TSDB_DATA_TYPE_DOUBLE:
*(double *)pCellData = (double)tSmaInitVal++;
break;
case TSDB_DATA_TYPE_VARCHAR: // city
varDataSetLen(pCellData, strlen(tSmaGroupbyTags[g * 2]));
memcpy(varDataVal(pCellData), tSmaGroupbyTags[g * 2], varDataLen(pCellData));
break;
case TSDB_DATA_TYPE_NCHAR: // district
varDataSetLen(pCellData, strlen(tSmaGroupbyTags[g * 2 + 1]));
memcpy(varDataVal(pCellData), tSmaGroupbyTags[g * 2 + 1], varDataLen(pCellData));
break;
default:
EXPECT_EQ(0, 1); // add definition
break;
}
}
// push SColumnInfoData
taosArrayPush(pDataBlock->pDataBlock, &pColInfoData);
}
// push SSDataBlock
taosArrayPush(pDataBlocks, &pDataBlock);
}
// execute
EXPECT_EQ(tsdbInsertTSmaData(pTsdb, tSma.indexUid, (const char *)pDataBlocks), TSDB_CODE_SUCCESS);
#if 0
STSmaDataWrapper *pSmaData = NULL;
......@@ -432,7 +517,7 @@ TEST(testCase, tSma_Data_Insert_Query_Test) {
int32_t tableDataLen = sizeof(STSmaTbData);
for (col_id_t c = 0; c < numOfCols; ++c) {
if (bufSize - len - tableDataLen < buffer) {
ASSERT_EQ(tsdbMakeRoom(&buf, bufSize + allocStep), 0);
EXPECT_EQ(tsdbMakeRoom(&buf, bufSize + allocStep), 0);
pSmaData = (STSmaDataWrapper *)buf;
pTbData = (STSmaTbData *)POINTER_SHIFT(pSmaData, len);
bufSize = taosTSizeof(buf);
......@@ -459,31 +544,36 @@ TEST(testCase, tSma_Data_Insert_Query_Test) {
}
pSmaData->dataLen = (len - sizeof(STSmaDataWrapper));
ASSERT_GE(bufSize, pSmaData->dataLen);
EXPECT_GE(bufSize, pSmaData->dataLen);
// execute
ASSERT_EQ(tsdbInsertTSmaData(pTsdb, (char *)pSmaData), TSDB_CODE_SUCCESS);
EXPECT_EQ(tsdbInsertTSmaData(pTsdb, (char *)pSmaData), TSDB_CODE_SUCCESS);
#endif
SSDataBlock *pSmaData = (SSDataBlock *)taosMemoryCalloc(1, sizeof(SSDataBlock));
// step 3: query
uint32_t checkDataCnt = 0;
for (int32_t t = 0; t < numOfTables; ++t) {
for (col_id_t c = 0; c < numOfCols; ++c) {
ASSERT_EQ(tsdbGetTSmaData(pTsdb, NULL, indexUid1, interval1, intervalUnit1, tbUid + t,
c + PRIMARYKEY_TIMESTAMP_COL_ID, skey1, 1),
TSDB_CODE_SUCCESS);
++checkDataCnt;
}
}
EXPECT_EQ(tsdbGetTSmaData(pTsdb, NULL, indexUid1, skey1, 1), TSDB_CODE_SUCCESS);
++checkDataCnt;
printf("%s:%d The sma data check count for insert and query is %" PRIu32 "\n", __FILE__, __LINE__, checkDataCnt);
// release data
taosMemoryFreeClear(pMsg);
taosTZfree(buf);
for (int32_t i = 0; i < taosArrayGetSize(pDataBlocks); ++i) {
SSDataBlock *pDataBlock = *(SSDataBlock **)taosArrayGet(pDataBlocks, i);
int32_t numOfOutput = taosArrayGetSize(pDataBlock->pDataBlock);
for (int32_t j = 0; j < numOfOutput; ++j) {
SColumnInfoData *pColInfoData = *(SColumnInfoData **)taosArrayGet(pDataBlock->pDataBlock, j);
colDataDestroy(pColInfoData);
taosMemoryFreeClear(pColInfoData);
}
taosArrayDestroy(pDataBlock->pDataBlock);
taosMemoryFreeClear(pDataBlock->pBlockAgg);
taosMemoryFreeClear(pDataBlock);
}
taosArrayDestroy(pDataBlocks);
// release meta
tdDestroyTSma(&tSma);
tfsClose(pTsdb->pTfs);
......
......@@ -161,20 +161,8 @@ typedef struct STaskCostInfo {
typedef struct SOperatorCostInfo {
uint64_t openCost;
uint64_t execCost;
// uint64_t totalRows;
// uint64_t totalBytes;
} SOperatorCostInfo;
typedef struct {
int64_t vgroupLimit;
int64_t ts;
} SOrderedPrjQueryInfo;
typedef struct {
char* tags;
SArray* pResult; // SArray<SStddevInterResult>
} SInterResult;
// The basic query information extracted from the SQueryInfo tree to support the
// execution of query in a data node.
typedef struct STaskAttr {
......@@ -230,7 +218,6 @@ typedef struct STaskAttr {
SColumnInfo* tagColList;
int32_t numOfFilterCols;
int64_t* fillVal;
SOrderedPrjQueryInfo prjInfo; // limit value for each vgroup, only available in global order projection query.
SSingleColumnFilterInfo* pFilterInfo;
// SFilterInfo *pFilters;
......@@ -245,8 +232,9 @@ struct SOperatorInfo;
typedef void (*__optr_encode_fn_t)(struct SOperatorInfo* pOperator, char **result, int32_t *length);
typedef bool (*__optr_decode_fn_t)(struct SOperatorInfo* pOperator, char *result, int32_t length);
typedef int32_t (*__optr_open_fn_t)(struct SOperatorInfo* param);
typedef SSDataBlock* (*__optr_fn_t)(struct SOperatorInfo* param, bool* newgroup);
typedef int32_t (*__optr_open_fn_t)(struct SOperatorInfo* pOptr);
typedef SSDataBlock* (*__optr_fn_t)(struct SOperatorInfo* pOptr, bool* newgroup);
typedef void (*__optr_close_fn_t)(void* param, int32_t num);
typedef struct STaskIdInfo {
......@@ -267,7 +255,8 @@ typedef struct SExecTaskInfo {
uint64_t totalRows; // total number of rows
STableGroupInfo tableqinfoGroupInfo; // this is a group array list, including SArray<STableQueryInfo*> structure
char* sql; // query sql string
jmp_buf env; //
jmp_buf env; // jump to this position when error happens.
EOPTR_EXEC_MODEL execModel; // operator execution model [batch model|stream model]
struct SOperatorInfo* pRoot;
} SExecTaskInfo;
......@@ -330,11 +319,12 @@ typedef struct SOperatorInfo {
SResultInfo resultInfo;
struct SOperatorInfo** pDownstream; // downstram pointer list
int32_t numOfDownstream; // number of downstream. The value is always ONE expect for join operator
__optr_open_fn_t _openFn; // DO NOT invoke this function directly
__optr_fn_t getNextFn;
__optr_fn_t cleanupFn;
__optr_fn_t getStreamResFn; // execute the aggregate in the stream model.
__optr_fn_t cleanupFn; // call this function to release the allocated resources ASAP
__optr_close_fn_t closeFn;
__optr_open_fn_t _openFn; // DO NOT invoke this function directly
__optr_encode_fn_t encodeResultRow; //
__optr_encode_fn_t encodeResultRow;
__optr_decode_fn_t decodeResultRow;
} SOperatorInfo;
......@@ -363,18 +353,18 @@ typedef struct SQInfo {
STaskCostInfo summary;
} SQInfo;
enum {
DATA_NOT_READY = 0x1,
DATA_READY = 0x2,
DATA_EXHAUSTED = 0x3,
};
typedef enum {
EX_SOURCE_DATA_NOT_READY = 0x1,
EX_SOURCE_DATA_READY = 0x2,
EX_SOURCE_DATA_EXHAUSTED = 0x3,
} EX_SOURCE_STATUS;
typedef struct SSourceDataInfo {
struct SExchangeInfo *pEx;
int32_t index;
SRetrieveTableRsp *pRsp;
uint64_t totalRows;
int32_t status;
int32_t index;
SRetrieveTableRsp *pRsp;
uint64_t totalRows;
EX_SOURCE_STATUS status;
} SSourceDataInfo;
typedef struct SLoadRemoteDataInfo {
......@@ -383,12 +373,6 @@ typedef struct SLoadRemoteDataInfo {
uint64_t totalElapsed; // total elapsed time
} SLoadRemoteDataInfo;
enum {
EX_SOURCE_DATA_NOT_READY = 0x1,
EX_SOURCE_DATA_READY = 0x2,
EX_SOURCE_DATA_EXHAUSTED = 0x3,
};
typedef struct SExchangeInfo {
SArray* pSources;
SArray* pSourceDataInfo;
......@@ -484,16 +468,18 @@ typedef struct SAggSupporter {
} SAggSupporter;
typedef struct STableIntervalOperatorInfo {
SOptrBasicInfo binfo;
SGroupResInfo groupResInfo;
SInterval interval;
STimeWindow win;
int32_t precision;
bool timeWindowInterpo;
char **pRow;
SAggSupporter aggSup;
STableQueryInfo *pCurrent;
int32_t order;
SOptrBasicInfo binfo; // basic info
SGroupResInfo groupResInfo; // multiple results build supporter
SInterval interval; // interval info
STimeWindow win; // query time range
bool timeWindowInterpo; // interpolation needed or not
char **pRow; // previous row/tuple of already processed datablock
SAggSupporter aggSup; // aggregate supporter
STableQueryInfo *pCurrent; // current tableQueryInfo struct
int32_t order; // current SSDataBlock scan order
EOPTR_EXEC_MODEL execModel; // operator execution model [batch model|stream model]
SArray *pUpdatedWindow; // updated time window due to the input data block from the downstream operator.
SColumnInfoData timeWindowData; // query time window info for scalar function execution.
} STableIntervalOperatorInfo;
typedef struct SAggOperatorInfo {
......@@ -695,12 +681,6 @@ SOperatorInfo* createSLimitOperatorInfo(STaskRuntimeEnv* pRuntimeEnv, SOperatorI
SOperatorInfo* createJoinOperatorInfo(SOperatorInfo** pdownstream, int32_t numOfDownstream, SSchema* pSchema,
int32_t numOfOutput);
void doSetFilterColumnInfo(SSingleColumnFilterInfo* pFilterInfo, int32_t numOfFilterCols, SSDataBlock* pBlock);
bool doFilterDataBlock(SSingleColumnFilterInfo* pFilterInfo, int32_t numOfFilterCols, int32_t numOfRows, int8_t* p);
void doCompactSDataBlock(SSDataBlock* pBlock, int32_t numOfRows, int8_t* p);
SSDataBlock* createOutputBuf(SExprInfo* pExpr, int32_t numOfOutput, int32_t numOfRows);
void* doDestroyFilterInfo(SSingleColumnFilterInfo* pFilterInfo, int32_t numOfFilterCols);
void setInputDataBlock(SOperatorInfo* pOperator, SqlFunctionCtx* pCtx, SSDataBlock* pBlock, int32_t order);
......@@ -734,7 +714,7 @@ int32_t getMaximumIdleDurationSec();
void doInvokeUdf(struct SUdfInfo* pUdfInfo, SqlFunctionCtx* pCtx, int32_t idx, int32_t type);
void setTaskStatus(SExecTaskInfo* pTaskInfo, int8_t status);
int32_t createExecTaskInfoImpl(SSubplan* pPlan, SExecTaskInfo** pTaskInfo, SReadHandle* pHandle, uint64_t taskId);
int32_t createExecTaskInfoImpl(SSubplan* pPlan, SExecTaskInfo** pTaskInfo, SReadHandle* pHandle, uint64_t taskId, EOPTR_EXEC_MODEL model);
#ifdef __cplusplus
}
......
......@@ -113,7 +113,7 @@ qTaskInfo_t qCreateStreamExecTaskInfo(void* msg, void* streamReadHandle) {
}
qTaskInfo_t pTaskInfo = NULL;
code = qCreateExecTask(streamReadHandle, 0, 0, plan, &pTaskInfo, NULL);
code = qCreateExecTask(streamReadHandle, 0, 0, plan, &pTaskInfo, NULL, OPTR_EXEC_MODEL_STREAM);
if (code != TSDB_CODE_SUCCESS) {
// TODO: destroy SSubplan & pTaskInfo
terrno = code;
......
......@@ -51,11 +51,12 @@ static void freeqinfoFn(void *qhandle) {
qDestroyTask(*handle);
}
int32_t qCreateExecTask(SReadHandle* readHandle, int32_t vgId, uint64_t taskId, SSubplan* pSubplan, qTaskInfo_t* pTaskInfo, DataSinkHandle* handle) {
int32_t qCreateExecTask(SReadHandle* readHandle, int32_t vgId, uint64_t taskId, SSubplan* pSubplan,
qTaskInfo_t* pTaskInfo, DataSinkHandle* handle, EOPTR_EXEC_MODEL model) {
assert(readHandle != NULL && pSubplan != NULL);
SExecTaskInfo** pTask = (SExecTaskInfo**)pTaskInfo;
int32_t code = createExecTaskInfoImpl(pSubplan, pTask, readHandle, taskId);
int32_t code = createExecTaskInfoImpl(pSubplan, pTask, readHandle, taskId, model);
if (code != TSDB_CODE_SUCCESS) {
goto _error;
}
......
......@@ -1014,8 +1014,35 @@ static int32_t getNumOfRowsInTimeWindow(SDataBlockInfo* pDataBlockInfo, TSKEY* p
return num;
}
static void doApplyFunctions(SqlFunctionCtx* pCtx, STimeWindow* pWin, int32_t offset, int32_t forwardStep, TSKEY* tsCol,
// query_range_start, query_range_end, window_duration, window_start, window_end
static void initExecTimeWindowInfo(SColumnInfoData* pColData, STimeWindow* pQueryWindow) {
pColData->info.type = TSDB_DATA_TYPE_TIMESTAMP;
pColData->info.bytes = sizeof(int64_t);
blockDataEnsureColumnCapacity(pColData, 5);
colDataAppendInt64(pColData, 0, &pQueryWindow->skey);
colDataAppendInt64(pColData, 1, &pQueryWindow->ekey);
int64_t interval = 0;
colDataAppendInt64(pColData, 2, &interval); // this value may be variable in case of 'n' and 'y'.
colDataAppendInt64(pColData, 3, &pQueryWindow->skey);
colDataAppendInt64(pColData, 4, &pQueryWindow->ekey);
}
static void updateTimeWindowInfo(SColumnInfoData* pColData, STimeWindow* pWin) {
int64_t* ts = (int64_t*)pColData->pData;
int64_t duration = pWin->ekey - pWin->skey + 1;
ts[2] = duration; // set the duration
ts[3] = pWin->skey; // window start key
ts[4] = pWin->ekey + 1; // window end key
}
static void doApplyFunctions(SqlFunctionCtx* pCtx, STimeWindow* pWin, SColumnInfoData* pTimeWindowData, int32_t offset, int32_t forwardStep, TSKEY* tsCol,
int32_t numOfTotal, int32_t numOfOutput, int32_t order) {
SScalarParam intervalParam = {.numOfRows = 5, .columnData = pTimeWindowData}; //TODO move out of this function
updateTimeWindowInfo(pTimeWindowData, pWin);
for (int32_t k = 0; k < numOfOutput; ++k) {
pCtx[k].startTs = pWin->skey;
......@@ -1038,6 +1065,21 @@ static void doApplyFunctions(SqlFunctionCtx* pCtx, STimeWindow* pWin, int32_t of
pCtx[k].isAggSet = false;
}
if (fmIsWindowPseudoColumnFunc(pCtx[k].functionId)) {
SResultRowEntryInfo* pEntryInfo = GET_RES_INFO(&pCtx[k]);
char* p = GET_ROWCELL_INTERBUF(pEntryInfo);
SScalarParam out = {.columnData = NULL};
out.columnData = taosMemoryCalloc(1, sizeof(SColumnInfoData));
out.columnData->info.type = TSDB_DATA_TYPE_BIGINT;
out.columnData->info.bytes = tDataTypes[TSDB_DATA_TYPE_BIGINT].bytes;
out.columnData->pData = p;
pCtx[k].sfp.process(&intervalParam, 1, &out);
pEntryInfo->numOfRes = 1;
pEntryInfo->hasResult = ',';
continue;
}
if (functionNeedToExecute(&pCtx[k])) {
pCtx[k].fpSet.process(&pCtx[k]);
}
......@@ -1054,7 +1096,7 @@ static int32_t getNextQualifiedWindow(SInterval* pInterval, STimeWindow* pNext,
int32_t order = pInfo->order;
bool ascQuery = (order == TSDB_ORDER_ASC);
int32_t precision = pInfo->precision;
int32_t precision = pInterval->precision;
getNextTimeWindow(pInterval, precision, order, pNext);
// next time window is not in current block
......@@ -1489,15 +1531,19 @@ static void doWindowBorderInterpolation(SOperatorInfo* pOperatorInfo, SSDataBloc
}
}
static void hashIntervalAgg(SOperatorInfo* pOperatorInfo, SResultRowInfo* pResultRowInfo, SSDataBlock* pSDataBlock,
int32_t tableGroupId) {
static SArray* hashIntervalAgg(SOperatorInfo* pOperatorInfo, SResultRowInfo* pResultRowInfo, SSDataBlock* pSDataBlock, int32_t tableGroupId) {
STableIntervalOperatorInfo* pInfo = (STableIntervalOperatorInfo*)pOperatorInfo->info;
SExecTaskInfo* pTaskInfo = pOperatorInfo->pTaskInfo;
int32_t numOfOutput = pOperatorInfo->numOfOutput;
SArray* pUpdated = NULL;
if (pInfo->execModel == OPTR_EXEC_MODEL_STREAM) {
pUpdated = taosArrayInit(4, sizeof(SResultRowPosition));
}
int32_t step = 1;
bool ascQuery = true;
bool ascScan = true;
int32_t prevIndex = pResultRowInfo->curPos;
......@@ -1509,10 +1555,10 @@ static void hashIntervalAgg(SOperatorInfo* pOperatorInfo, SResultRowInfo* pResul
tsCols[pSDataBlock->info.rows - 1] == pSDataBlock->info.window.ekey);
}
int32_t startPos = ascQuery ? 0 : (pSDataBlock->info.rows - 1);
TSKEY ts = getStartTsKey(&pSDataBlock->info.window, tsCols, pSDataBlock->info.rows, ascQuery);
int32_t startPos = ascScan? 0 : (pSDataBlock->info.rows - 1);
TSKEY ts = getStartTsKey(&pSDataBlock->info.window, tsCols, pSDataBlock->info.rows, ascScan);
STimeWindow win = getActiveTimeWindow(pResultRowInfo, ts, &pInfo->interval, pInfo->precision, &pInfo->win);
STimeWindow win = getActiveTimeWindow(pResultRowInfo, ts, &pInfo->interval, pInfo->interval.precision, &pInfo->win);
bool masterScan = true;
SResultRow* pResult = NULL;
......@@ -1523,6 +1569,11 @@ static void hashIntervalAgg(SOperatorInfo* pOperatorInfo, SResultRowInfo* pResul
longjmp(pTaskInfo->env, TSDB_CODE_QRY_OUT_OF_MEMORY);
}
if (pInfo->execModel == OPTR_EXEC_MODEL_STREAM) {
SResultRowPosition pos = {.pageId = pResult->pageId, .offset = pResult->offset};
taosArrayPush(pUpdated, &pos);
}
int32_t forwardStep = 0;
TSKEY ekey = win.ekey;
forwardStep =
......@@ -1534,8 +1585,7 @@ static void hashIntervalAgg(SOperatorInfo* pOperatorInfo, SResultRowInfo* pResul
for (int32_t j = prevIndex; j < curIndex; ++j) { // previous time window may be all closed already.
SResultRow* pRes = getResultRow(pResultRowInfo, j);
if (pRes->closed) {
assert(resultRowInterpolated(pRes, RESULT_ROW_START_INTERP) &&
resultRowInterpolated(pRes, RESULT_ROW_END_INTERP));
assert(resultRowInterpolated(pRes, RESULT_ROW_START_INTERP) && resultRowInterpolated(pRes, RESULT_ROW_END_INTERP));
continue;
}
......@@ -1548,14 +1598,13 @@ static void hashIntervalAgg(SOperatorInfo* pOperatorInfo, SResultRowInfo* pResul
}
assert(!resultRowInterpolated(pResult, RESULT_ROW_END_INTERP));
doTimeWindowInterpolation(pOperatorInfo, &pInfo->binfo, pSDataBlock->pDataBlock, *(TSKEY*)pInfo->pRow[0], -1,
tsCols[startPos], startPos, w.ekey, RESULT_ROW_END_INTERP);
setResultRowInterpo(pResult, RESULT_ROW_END_INTERP);
setNotInterpoWindowKey(pInfo->binfo.pCtx, pOperatorInfo->numOfOutput, RESULT_ROW_START_INTERP);
doApplyFunctions(pInfo->binfo.pCtx, &w, startPos, 0, tsCols, pSDataBlock->info.rows, numOfOutput, TSDB_ORDER_ASC);
doApplyFunctions(pInfo->binfo.pCtx, &w, &pInfo->timeWindowData, startPos, 0, tsCols, pSDataBlock->info.rows, numOfOutput, TSDB_ORDER_ASC);
}
// restore current time window
......@@ -1570,8 +1619,7 @@ static void hashIntervalAgg(SOperatorInfo* pOperatorInfo, SResultRowInfo* pResul
// window start key interpolation
doWindowBorderInterpolation(pOperatorInfo, pSDataBlock, pInfo->binfo.pCtx, pResult, &win, startPos, forwardStep,
pInfo->order, false);
doApplyFunctions(pInfo->binfo.pCtx, &win, startPos, forwardStep, tsCols, pSDataBlock->info.rows, numOfOutput,
TSDB_ORDER_ASC);
doApplyFunctions(pInfo->binfo.pCtx, &win, &pInfo->timeWindowData, startPos, forwardStep, tsCols, pSDataBlock->info.rows, numOfOutput, TSDB_ORDER_ASC);
STimeWindow nextWin = win;
while (1) {
......@@ -1589,6 +1637,11 @@ static void hashIntervalAgg(SOperatorInfo* pOperatorInfo, SResultRowInfo* pResul
longjmp(pTaskInfo->env, TSDB_CODE_QRY_OUT_OF_MEMORY);
}
if (pInfo->execModel == OPTR_EXEC_MODEL_STREAM) {
SResultRowPosition pos = {.pageId = pResult->pageId, .offset = pResult->offset};
taosArrayPush(pUpdated, &pos);
}
ekey = nextWin.ekey; // reviseWindowEkey(pQueryAttr, &nextWin);
forwardStep =
getNumOfRowsInTimeWindow(&pSDataBlock->info, tsCols, startPos, ekey, binarySearchForKey, NULL, TSDB_ORDER_ASC);
......@@ -1596,15 +1649,15 @@ static void hashIntervalAgg(SOperatorInfo* pOperatorInfo, SResultRowInfo* pResul
// window start(end) key interpolation
doWindowBorderInterpolation(pOperatorInfo, pSDataBlock, pInfo->binfo.pCtx, pResult, &nextWin, startPos, forwardStep,
pInfo->order, false);
doApplyFunctions(pInfo->binfo.pCtx, &nextWin, startPos, forwardStep, tsCols, pSDataBlock->info.rows, numOfOutput,
TSDB_ORDER_ASC);
doApplyFunctions(pInfo->binfo.pCtx, &nextWin, &pInfo->timeWindowData, startPos, forwardStep, tsCols, pSDataBlock->info.rows, numOfOutput, TSDB_ORDER_ASC);
}
if (pInfo->timeWindowInterpo) {
int32_t rowIndex = ascQuery ? (pSDataBlock->info.rows - 1) : 0;
int32_t rowIndex = ascScan ? (pSDataBlock->info.rows - 1) : 0;
saveDataBlockLastRow(pInfo->pRow, pSDataBlock->pDataBlock, rowIndex, pSDataBlock->info.numOfCols);
}
return pUpdated;
// updateResultRowInfoActiveIndex(pResultRowInfo, &pInfo->win, pRuntimeEnv->current->lastKey, true, false);
}
......@@ -1841,7 +1894,7 @@ static void doHashGroupbyAgg(SOperatorInfo* pOperator, SSDataBlock* pBlock) {
}
int32_t rowIndex = j - num;
doApplyFunctions(pCtx, &w, rowIndex, num, NULL, pBlock->info.rows, pOperator->numOfOutput, TSDB_ORDER_ASC);
doApplyFunctions(pCtx, &w, NULL, rowIndex, num, NULL, pBlock->info.rows, pOperator->numOfOutput, TSDB_ORDER_ASC);
// assign the group keys or user input constant values if required
doAssignGroupKeys(pCtx, pOperator->numOfOutput, pBlock->info.rows, rowIndex);
......@@ -1859,7 +1912,7 @@ static void doHashGroupbyAgg(SOperatorInfo* pOperator, SSDataBlock* pBlock) {
}
int32_t rowIndex = pBlock->info.rows - num;
doApplyFunctions(pCtx, &w, rowIndex, num, NULL, pBlock->info.rows, pOperator->numOfOutput, TSDB_ORDER_ASC);
doApplyFunctions(pCtx, &w, NULL, rowIndex, num, NULL, pBlock->info.rows, pOperator->numOfOutput, TSDB_ORDER_ASC);
doAssignGroupKeys(pCtx, pOperator->numOfOutput, pBlock->info.rows, rowIndex);
}
}
......@@ -1910,8 +1963,7 @@ static void doSessionWindowAggImpl(SOperatorInfo* pOperator, SSessionAggOperator
}
// pInfo->numOfRows data belong to the current session window
doApplyFunctions(pInfo->binfo.pCtx, &window, pInfo->start, pInfo->numOfRows, NULL, pBlock->info.rows, numOfOutput,
TSDB_ORDER_ASC);
doApplyFunctions(pInfo->binfo.pCtx, &window, NULL, pInfo->start, pInfo->numOfRows, NULL, pBlock->info.rows, numOfOutput, TSDB_ORDER_ASC);
pInfo->curWindow.skey = tsList[j];
pInfo->curWindow.ekey = tsList[j];
......@@ -1931,8 +1983,7 @@ static void doSessionWindowAggImpl(SOperatorInfo* pOperator, SSessionAggOperator
longjmp(pTaskInfo->env, TSDB_CODE_QRY_APP_ERROR);
}
doApplyFunctions(pInfo->binfo.pCtx, &window, pInfo->start, pInfo->numOfRows, NULL, pBlock->info.rows, numOfOutput,
TSDB_ORDER_ASC);
doApplyFunctions(pInfo->binfo.pCtx, &window, NULL, pInfo->start, pInfo->numOfRows, NULL, pBlock->info.rows, numOfOutput, TSDB_ORDER_ASC);
}
static void setResultRowKey(SResultRow* pResultRow, char* pData, int16_t type) {
......@@ -1999,11 +2050,7 @@ static bool functionNeedToExecute(SqlFunctionCtx* pCtx) {
return false;
}
if (functionId == FUNCTION_TS) {
return true;
}
if (isRowEntryCompleted(pResInfo) || functionId == FUNCTION_TAG_DUMMY || functionId == FUNCTION_TS_DUMMY) {
if (isRowEntryCompleted(pResInfo)) {
return false;
}
......@@ -2118,6 +2165,9 @@ static SqlFunctionCtx* createSqlFunctionCtx_rv(SExprInfo* pExprInfo, int32_t num
pCtx->fpSet.getEnv(pExpr->pExpr->_function.pFunctNode, &env);
} else {
fmGetScalarFuncExecFuncs(pCtx->functionId, &pCtx->sfp);
if (pCtx->sfp.getEnv != NULL) {
pCtx->sfp.getEnv(pExpr->pExpr->_function.pFunctNode, &env);
}
}
pCtx->resDataInfo.interBufSize = env.calcMemSize;
} else if (pExpr->pExpr->nodeType == QUERY_NODE_COLUMN) {
......@@ -3590,6 +3640,42 @@ void finalizeMultiTupleQueryResult(SqlFunctionCtx* pCtx, int32_t numOfOutput, SD
}
}
void finalizeUpdatedResult(SqlFunctionCtx* pCtx, int32_t numOfOutput, SDiskbasedBuf* pBuf, SArray* pUpdateList,
int32_t* rowCellInfoOffset) {
size_t num = taosArrayGetSize(pUpdateList);
for (int32_t i = 0; i < num; ++i) {
SResultRowPosition* pPos = taosArrayGet(pUpdateList, i);
SFilePage* bufPage = getBufPage(pBuf, pPos->pageId);
SResultRow* pRow = (SResultRow*)((char*)bufPage + pPos->offset);
for (int32_t j = 0; j < numOfOutput; ++j) {
pCtx[j].resultInfo = getResultCell(pRow, j, rowCellInfoOffset);
struct SResultRowEntryInfo* pResInfo = pCtx[j].resultInfo;
if (isRowEntryCompleted(pResInfo) && isRowEntryInitialized(pResInfo)) {
continue;
}
if (pCtx[j].fpSet.process) { // TODO set the dummy function.
pCtx[j].fpSet.finalize(&pCtx[j]);
}
if (pRow->numOfRows < pResInfo->numOfRes) {
pRow->numOfRows = pResInfo->numOfRes;
}
}
releaseBufPage(pBuf, bufPage);
/*
* set the number of output results for group by normal columns, the number of output rows usually is 1 except
* the top and bottom query
*/
// buf->numOfRows = (uint16_t)getNumOfResult(pCtx, numOfOutput);
}
}
static bool hasMainOutput(STaskAttr* pQueryAttr) {
for (int32_t i = 0; i < pQueryAttr->numOfOutput; ++i) {
int32_t functionId = getExprFunctionId(&pQueryAttr->pExpr1[i]);
......@@ -3680,7 +3766,6 @@ void setResultRowOutputBufInitCtx(STaskRuntimeEnv* pRuntimeEnv, SResultRow* pRes
void setResultRowOutputBufInitCtx_rv(SDiskbasedBuf* pBuf, SResultRow* pResult, SqlFunctionCtx* pCtx,
int32_t numOfOutput, int32_t* rowCellInfoOffset) {
// Note: pResult->pos[i]->num == 0, there is only fixed number of results for each group
for (int32_t i = 0; i < numOfOutput; ++i) {
pCtx[i].resultInfo = getResultCell(pResult, i, rowCellInfoOffset);
......@@ -3688,6 +3773,11 @@ void setResultRowOutputBufInitCtx_rv(SDiskbasedBuf* pBuf, SResultRow* pResult, S
if (isRowEntryCompleted(pResInfo) && isRowEntryInitialized(pResInfo)) {
continue;
}
if (fmIsWindowPseudoColumnFunc(pCtx[i].functionId)) {
continue;
}
// int32_t functionId = pCtx[i].functionId;
// if (functionId < 0) {
// continue;
......@@ -4032,8 +4122,7 @@ static void toSDatablock(SGroupResInfo* pGroupResInfo, SDiskbasedBuf* pBuf, SSDa
return;
}
int32_t orderType =
TSDB_ORDER_ASC; //(pQueryAttr->pGroupbyExpr != NULL) ? pQueryAttr->pGroupbyExpr->orderType : TSDB_ORDER_ASC;
int32_t orderType = TSDB_ORDER_ASC;
doCopyToSDataBlock(pBuf, pGroupResInfo, orderType, pBlock, rowCapacity, rowCellOffset);
// add condition (pBlock->info.rows >= 1) just to runtime happy
......@@ -5074,12 +5163,12 @@ static SSDataBlock* concurrentlyLoadRemoteDataImpl(SOperatorInfo* pOperator, SEx
for (int32_t i = 0; i < totalSources; ++i) {
SSourceDataInfo* pDataInfo = taosArrayGet(pExchangeInfo->pSourceDataInfo, i);
if (pDataInfo->status == DATA_EXHAUSTED) {
if (pDataInfo->status == EX_SOURCE_DATA_EXHAUSTED) {
completed += 1;
continue;
}
if (pDataInfo->status != DATA_READY) {
if (pDataInfo->status != EX_SOURCE_DATA_READY) {
continue;
}
......@@ -5093,7 +5182,7 @@ static SSDataBlock* concurrentlyLoadRemoteDataImpl(SOperatorInfo* pOperator, SEx
" try next",
GET_TASKID(pTaskInfo), pSource->addr.nodeId, pSource->taskId, i + 1, pDataInfo->totalRows,
pExchangeInfo->loadInfo.totalRows);
pDataInfo->status = DATA_EXHAUSTED;
pDataInfo->status = EX_SOURCE_DATA_EXHAUSTED;
completed += 1;
continue;
}
......@@ -5111,16 +5200,15 @@ static SSDataBlock* concurrentlyLoadRemoteDataImpl(SOperatorInfo* pOperator, SEx
", totalRows:%" PRIu64 ", totalBytes:%" PRIu64 " try next %d/%" PRIzu,
GET_TASKID(pTaskInfo), pSource->addr.nodeId, pSource->taskId, pRes->info.rows, pDataInfo->totalRows,
pLoadInfo->totalRows, pLoadInfo->totalSize, i + 1, totalSources);
pDataInfo->status = DATA_EXHAUSTED;
pDataInfo->status = EX_SOURCE_DATA_EXHAUSTED;
} else {
qDebug("%s fetch msg rsp from vgId:%d, taskId:0x%" PRIx64 " numOfRows:%d, totalRows:%" PRIu64
", totalBytes:%" PRIu64,
qDebug("%s fetch msg rsp from vgId:%d, taskId:0x%" PRIx64 " numOfRows:%d, totalRows:%" PRIu64 ", totalBytes:%" PRIu64,
GET_TASKID(pTaskInfo), pSource->addr.nodeId, pSource->taskId, pRes->info.rows, pLoadInfo->totalRows,
pLoadInfo->totalSize);
}
if (pDataInfo->status != DATA_EXHAUSTED) {
pDataInfo->status = DATA_NOT_READY;
if (pDataInfo->status != EX_SOURCE_DATA_EXHAUSTED) {
pDataInfo->status = EX_SOURCE_DATA_NOT_READY;
code = doSendFetchDataRequest(pExchangeInfo, pTaskInfo, i);
if (code != TSDB_CODE_SUCCESS) {
goto _error;
......@@ -5223,7 +5311,7 @@ static SSDataBlock* seqLoadRemoteData(SOperatorInfo* pOperator) {
GET_TASKID(pTaskInfo), pSource->addr.nodeId, pSource->taskId, pExchangeInfo->current + 1,
pDataInfo->totalRows, pLoadInfo->totalRows);
pDataInfo->status = DATA_EXHAUSTED;
pDataInfo->status = EX_SOURCE_DATA_EXHAUSTED;
pExchangeInfo->current += 1;
continue;
}
......@@ -5240,7 +5328,7 @@ static SSDataBlock* seqLoadRemoteData(SOperatorInfo* pOperator) {
GET_TASKID(pTaskInfo), pSource->addr.nodeId, pSource->taskId, pRes->info.rows, pDataInfo->totalRows,
pLoadInfo->totalRows, pLoadInfo->totalSize, pExchangeInfo->current + 1, totalSources);
pDataInfo->status = DATA_EXHAUSTED;
pDataInfo->status = EX_SOURCE_DATA_EXHAUSTED;
pExchangeInfo->current += 1;
} else {
qDebug("%s fetch msg rsp from vgId:%d, taskId:0x%" PRIx64 " numOfRows:%d, totalRows:%" PRIu64
......@@ -6845,37 +6933,6 @@ static SSDataBlock* doLimit(SOperatorInfo* pOperator, bool* newgroup) {
return pBlock;
}
static SSDataBlock* doFilter(void* param, bool* newgroup) {
SOperatorInfo* pOperator = (SOperatorInfo*)param;
if (pOperator->status == OP_EXEC_DONE) {
return NULL;
}
SFilterOperatorInfo* pCondInfo = pOperator->info;
STaskRuntimeEnv* pRuntimeEnv = pOperator->pRuntimeEnv;
while (1) {
publishOperatorProfEvent(pOperator->pDownstream[0], QUERY_PROF_BEFORE_OPERATOR_EXEC);
SSDataBlock* pBlock = pOperator->pDownstream[0]->getNextFn(pOperator->pDownstream[0], newgroup);
publishOperatorProfEvent(pOperator->pDownstream[0], QUERY_PROF_AFTER_OPERATOR_EXEC);
if (pBlock == NULL) {
break;
}
doSetFilterColumnInfo(pCondInfo->pFilterInfo, pCondInfo->numOfFilterCols, pBlock);
assert(pRuntimeEnv->pTsBuf == NULL);
filterRowsInDataBlock(pRuntimeEnv, pCondInfo->pFilterInfo, pCondInfo->numOfFilterCols, pBlock, true);
if (pBlock->info.rows > 0) {
return pBlock;
}
}
doSetOperatorCompleted(pOperator);
return NULL;
}
static int32_t doOpenIntervalAgg(SOperatorInfo* pOperator) {
if (OPTR_IS_OPENED(pOperator)) {
return TSDB_CODE_SUCCESS;
......@@ -6884,8 +6941,8 @@ static int32_t doOpenIntervalAgg(SOperatorInfo* pOperator) {
STableIntervalOperatorInfo* pInfo = pOperator->info;
int32_t order = TSDB_ORDER_ASC;
// STimeWindow win = pQueryAttr->window;
bool newgroup = false;
// STimeWindow win = {0};
bool newgroup = false;
SOperatorInfo* downstream = pOperator->pDownstream[0];
while (1) {
......@@ -6898,7 +6955,6 @@ static int32_t doOpenIntervalAgg(SOperatorInfo* pOperator) {
}
// setTagValue(pOperator, pRuntimeEnv->current->pTable, pInfo->pCtx, pOperator->numOfOutput);
// the pDataBlock are always the same one, no need to call this again
setInputDataBlock(pOperator, pInfo->binfo.pCtx, pBlock, order);
hashIntervalAgg(pOperator, &pInfo->binfo.resultRowInfo, pBlock, 0);
......@@ -6931,6 +6987,10 @@ static SSDataBlock* doBuildIntervalResult(SOperatorInfo* pOperator, bool* newgro
return NULL;
}
if (pInfo->execModel == OPTR_EXEC_MODEL_STREAM) {
return pOperator->getStreamResFn(pOperator, newgroup);
}
pTaskInfo->code = pOperator->_openFn(pOperator);
if (pTaskInfo->code != TSDB_CODE_SUCCESS) {
return NULL;
......@@ -6947,7 +7007,60 @@ static SSDataBlock* doBuildIntervalResult(SOperatorInfo* pOperator, bool* newgro
return pInfo->binfo.pRes->info.rows == 0 ? NULL : pInfo->binfo.pRes;
}
static SSDataBlock* doAllIntervalAgg(SOperatorInfo* pOperator, bool* newgroup) {
static SSDataBlock* doStreamIntervalAgg(SOperatorInfo *pOperator, bool* newgroup) {
STableIntervalOperatorInfo* pInfo = pOperator->info;
int32_t order = TSDB_ORDER_ASC;
if (pOperator->status == OP_EXEC_DONE) {
return NULL;
}
if (pOperator->status == OP_RES_TO_RETURN) {
toSDatablock(&pInfo->groupResInfo, pInfo->aggSup.pResultBuf, pInfo->binfo.pRes, pInfo->binfo.capacity,
pInfo->binfo.rowCellInfoOffset);
if (pInfo->binfo.pRes->info.rows == 0 || !hasRemainDataInCurrentGroup(&pInfo->groupResInfo)) {
pOperator->status = OP_EXEC_DONE;
}
return pInfo->binfo.pRes;
}
// STimeWindow win = {0};
*newgroup = false;
SOperatorInfo* downstream = pOperator->pDownstream[0];
SArray* pUpdated = NULL;
while (1) {
publishOperatorProfEvent(downstream, QUERY_PROF_BEFORE_OPERATOR_EXEC);
SSDataBlock* pBlock = downstream->getNextFn(downstream, newgroup);
publishOperatorProfEvent(downstream, QUERY_PROF_AFTER_OPERATOR_EXEC);
if (pBlock == NULL) {
break;
}
// The timewindows that overlaps the timestamps of the input pBlock need to be recalculated and return to the caller.
// Note that all the time window are not close till now.
// setTagValue(pOperator, pRuntimeEnv->current->pTable, pInfo->pCtx, pOperator->numOfOutput);
// the pDataBlock are always the same one, no need to call this again
setInputDataBlock(pOperator, pInfo->binfo.pCtx, pBlock, order);
pUpdated = hashIntervalAgg(pOperator, &pInfo->binfo.resultRowInfo, pBlock, 0);
}
finalizeUpdatedResult(pInfo->binfo.pCtx, pOperator->numOfOutput, pInfo->aggSup.pResultBuf, pUpdated, pInfo->binfo.rowCellInfoOffset);
blockDataEnsureCapacity(pInfo->binfo.pRes, pInfo->binfo.capacity);
toSDatablock(&pInfo->groupResInfo, pInfo->aggSup.pResultBuf, pInfo->binfo.pRes, pInfo->binfo.capacity,
pInfo->binfo.rowCellInfoOffset);
ASSERT(pInfo->binfo.pRes->info.rows > 0);
pOperator->status = OP_RES_TO_RETURN;
return pInfo->binfo.pRes->info.rows == 0 ? NULL : pInfo->binfo.pRes;
}
static SSDataBlock* doAllIntervalAgg(SOperatorInfo *pOperator, bool* newgroup) {
if (pOperator->status == OP_EXEC_DONE) {
return NULL;
}
......@@ -7581,8 +7694,7 @@ SOperatorInfo* createAggregateOperatorInfo(SOperatorInfo* downstream, SExprInfo*
//(int32_t)(getRowNumForMultioutput(pQueryAttr, pQueryAttr->topBotQuery, pQueryAttr->stableQuery));
int32_t numOfRows = 1;
int32_t code =
initAggInfo(&pInfo->binfo, &pInfo->aggSup, pExprInfo, numOfCols, numOfRows, pResultBlock, pTaskInfo->id.str);
int32_t code = initAggInfo(&pInfo->binfo, &pInfo->aggSup, pExprInfo, numOfCols, numOfRows, pResultBlock, pTaskInfo->id.str);
pInfo->pTableQueryInfo = initTableQueryInfo(pTableGroupInfo);
if (code != TSDB_CODE_SUCCESS || pInfo->pTableQueryInfo == NULL) {
goto _error;
......@@ -7590,18 +7702,18 @@ SOperatorInfo* createAggregateOperatorInfo(SOperatorInfo* downstream, SExprInfo*
setFunctionResultOutput(&pInfo->binfo, &pInfo->aggSup, MAIN_SCAN, pTaskInfo);
pOperator->name = "TableAggregate";
pOperator->name = "TableAggregate";
pOperator->operatorType = QUERY_NODE_PHYSICAL_PLAN_AGG;
pOperator->blockingOptr = true;
pOperator->status = OP_NOT_OPENED;
pOperator->info = pInfo;
pOperator->pExpr = pExprInfo;
pOperator->numOfOutput = numOfCols;
pOperator->status = OP_NOT_OPENED;
pOperator->info = pInfo;
pOperator->pExpr = pExprInfo;
pOperator->numOfOutput = numOfCols;
pOperator->pTaskInfo = pTaskInfo;
pOperator->_openFn = doOpenAggregateOptr;
pOperator->getNextFn = getAggregateResult;
pOperator->closeFn = destroyAggOperatorInfo;
pOperator->pTaskInfo = pTaskInfo;
pOperator->_openFn = doOpenAggregateOptr;
pOperator->getNextFn = getAggregateResult;
pOperator->closeFn = destroyAggOperatorInfo;
pOperator->encodeResultRow = aggEncodeResultRow;
pOperator->decodeResultRow = aggDecodeResultRow;
......@@ -7778,16 +7890,16 @@ SOperatorInfo* createProjectOperatorInfo(SOperatorInfo* downstream, SExprInfo* p
// initResultRowInfo(&pBInfo->resultRowInfo, 8);
// setFunctionResultOutput(pBInfo, MAIN_SCAN);
pOperator->name = "ProjectOperator";
pOperator->name = "ProjectOperator";
pOperator->operatorType = QUERY_NODE_PHYSICAL_PLAN_PROJECT;
pOperator->blockingOptr = false;
pOperator->status = OP_NOT_OPENED;
pOperator->info = pInfo;
pOperator->pExpr = pExprInfo;
pOperator->numOfOutput = num;
pOperator->_openFn = operatorDummyOpenFn;
pOperator->getNextFn = doProjectOperation;
pOperator->closeFn = destroyProjectOperatorInfo;
pOperator->status = OP_NOT_OPENED;
pOperator->info = pInfo;
pOperator->pExpr = pExprInfo;
pOperator->numOfOutput = num;
pOperator->_openFn = operatorDummyOpenFn;
pOperator->getNextFn = doProjectOperation;
pOperator->closeFn = destroyProjectOperatorInfo;
pOperator->pTaskInfo = pTaskInfo;
int32_t code = appendDownstream(pOperator, &downstream, 1);
......@@ -7802,39 +7914,6 @@ _error:
return NULL;
}
SColumnInfo* extractColumnFilterInfo(SExprInfo* pExpr, int32_t numOfOutput, int32_t* numOfFilterCols) {
#if 0
SColumnInfo* pCols = taosMemoryCalloc(numOfOutput, sizeof(SColumnInfo));
int32_t numOfFilter = 0;
for(int32_t i = 0; i < numOfOutput; ++i) {
if (pExpr[i].base.flist.numOfFilters > 0) {
numOfFilter += 1;
}
pCols[i].type = pExpr[i].base.resSchema.type;
pCols[i].bytes = pExpr[i].base.resSchema.bytes;
pCols[i].colId = pExpr[i].base.resSchema.colId;
pCols[i].flist.numOfFilters = pExpr[i].base.flist.numOfFilters;
if (pCols[i].flist.numOfFilters != 0) {
pCols[i].flist.filterInfo = taosMemoryCalloc(pCols[i].flist.numOfFilters, sizeof(SColumnFilterInfo));
memcpy(pCols[i].flist.filterInfo, pExpr[i].base.flist.filterInfo, pCols[i].flist.numOfFilters * sizeof(SColumnFilterInfo));
} else {
// avoid runtime error
pCols[i].flist.filterInfo = NULL;
}
}
assert(numOfFilter > 0);
*numOfFilterCols = numOfFilter;
return pCols;
#endif
return 0;
}
SOperatorInfo* createLimitOperatorInfo(SOperatorInfo* downstream, SLimit* pLimit, SExecTaskInfo* pTaskInfo) {
SLimitOperatorInfo* pInfo = taosMemoryCalloc(1, sizeof(SLimitOperatorInfo));
SOperatorInfo* pOperator = taosMemoryCalloc(1, sizeof(SOperatorInfo));
......@@ -7845,17 +7924,18 @@ SOperatorInfo* createLimitOperatorInfo(SOperatorInfo* downstream, SLimit* pLimit
pInfo->limit = *pLimit;
pInfo->currentOffset = pLimit->offset;
pOperator->name = "LimitOperator";
pOperator->name = "LimitOperator";
// pOperator->operatorType = QUERY_NODE_PHYSICAL_PLAN_LIMIT;
pOperator->blockingOptr = false;
pOperator->status = OP_NOT_OPENED;
pOperator->_openFn = operatorDummyOpenFn;
pOperator->getNextFn = doLimit;
pOperator->info = pInfo;
pOperator->pTaskInfo = pTaskInfo;
int32_t code = appendDownstream(pOperator, &downstream, 1);
pOperator->status = OP_NOT_OPENED;
pOperator->_openFn = operatorDummyOpenFn;
pOperator->getNextFn = doLimit;
pOperator->info = pInfo;
pOperator->pTaskInfo = pTaskInfo;
int32_t code = appendDownstream(pOperator, &downstream, 1);
return pOperator;
_error:
taosMemoryFreeClear(pInfo);
taosMemoryFreeClear(pOperator);
......@@ -7872,17 +7952,18 @@ SOperatorInfo* createIntervalOperatorInfo(SOperatorInfo* downstream, SExprInfo*
goto _error;
}
pInfo->order = TSDB_ORDER_ASC;
pInfo->precision = TSDB_TIME_PRECISION_MILLI;
pInfo->win = pTaskInfo->window;
pInfo->interval = *pInterval;
pInfo->order = TSDB_ORDER_ASC;
pInfo->interval = *pInterval;
pInfo->execModel = pTaskInfo->execModel;
pInfo->win.skey = INT64_MIN;
pInfo->win.ekey = INT64_MAX;
pInfo->win = pTaskInfo->window;
pInfo->win.skey = 0;
pInfo->win.ekey = INT64_MAX;
int32_t numOfRows = 4096;
int32_t code =
initAggInfo(&pInfo->binfo, &pInfo->aggSup, pExprInfo, numOfCols, numOfRows, pResBlock, pTaskInfo->id.str);
int32_t code = initAggInfo(&pInfo->binfo, &pInfo->aggSup, pExprInfo, numOfCols, numOfRows, pResBlock, pTaskInfo->id.str);
initExecTimeWindowInfo(&pInfo->timeWindowData, &pInfo->win);
// pInfo->pTableQueryInfo = initTableQueryInfo(pTableGroupInfo);
if (code != TSDB_CODE_SUCCESS /* || pInfo->pTableQueryInfo == NULL*/) {
goto _error;
......@@ -7890,7 +7971,7 @@ SOperatorInfo* createIntervalOperatorInfo(SOperatorInfo* downstream, SExprInfo*
initResultRowInfo(&pInfo->binfo.resultRowInfo, (int32_t)1);
pOperator->name = "TimeIntervalAggOperator";
pOperator->name = "TimeIntervalAggOperator";
pOperator->operatorType = QUERY_NODE_PHYSICAL_PLAN_INTERVAL;
pOperator->blockingOptr = true;
pOperator->status = OP_NOT_OPENED;
......@@ -7900,6 +7981,7 @@ SOperatorInfo* createIntervalOperatorInfo(SOperatorInfo* downstream, SExprInfo*
pOperator->info = pInfo;
pOperator->_openFn = doOpenIntervalAgg;
pOperator->getNextFn = doBuildIntervalResult;
pOperator->getStreamResFn= doStreamIntervalAgg;
pOperator->closeFn = destroyIntervalOperatorInfo;
pOperator->encodeResultRow = aggEncodeResultRow;
pOperator->decodeResultRow = aggDecodeResultRow;
......@@ -8626,6 +8708,23 @@ static SResSchema createResSchema(int32_t type, int32_t bytes, int32_t slotId, i
return s;
}
static SColumn* createColumn(int32_t blockId, int32_t slotId, SDataType* pType) {
SColumn* pCol = taosMemoryCalloc(1, sizeof(SColumn));
if (pCol == NULL) {
terrno = TSDB_CODE_OUT_OF_MEMORY;
return NULL;
}
pCol->slotId = slotId;
pCol->bytes = pType->bytes;
pCol->type = pType->type;
pCol->scale = pType->scale;
pCol->precision = pType->precision;
pCol->dataBlockId = blockId;
return pCol;
}
SExprInfo* createExprInfo(SNodeList* pNodeList, SNodeList* pGroupKeys, int32_t* numOfExprs) {
int32_t numOfFuncs = LIST_LENGTH(pNodeList);
int32_t numOfGroupKeys = 0;
......@@ -8657,18 +8756,11 @@ SExprInfo* createExprInfo(SNodeList* pNodeList, SNodeList* pGroupKeys, int32_t*
pExp->base.pParam = taosMemoryCalloc(1, sizeof(SFunctParam));
pExp->base.numOfParams = 1;
pExp->base.pParam[0].pCol = taosMemoryCalloc(1, sizeof(SColumn));
pExp->base.pParam[0].type = FUNC_PARAM_TYPE_COLUMN;
SDataType* pType = &pColNode->node.resType;
pExp->base.resSchema = createResSchema(pType->type, pType->bytes, pTargetNode->slotId, pType->scale, pType->precision, pColNode->colName);
SColumn* pCol = pExp->base.pParam[0].pCol;
pCol->slotId = pColNode->slotId; // TODO refactor
pCol->bytes = pType->bytes;
pCol->type = pType->type;
pCol->scale = pType->scale;
pCol->precision = pType->precision;
pExp->base.pParam[0].pCol = createColumn(pColNode->dataBlockId, pColNode->slotId, pType);
pExp->base.pParam[0].type = FUNC_PARAM_TYPE_COLUMN;
} else if (nodeType(pTargetNode->pExpr) == QUERY_NODE_FUNCTION) {
pExp->pExpr->nodeType = QUERY_NODE_FUNCTION;
SFunctionNode* pFuncNode = (SFunctionNode*)pTargetNode->pExpr;
......@@ -8679,8 +8771,7 @@ SExprInfo* createExprInfo(SNodeList* pNodeList, SNodeList* pGroupKeys, int32_t*
pExp->pExpr->_function.functionId = pFuncNode->funcId;
pExp->pExpr->_function.pFunctNode = pFuncNode;
strncpy(pExp->pExpr->_function.functionName, pFuncNode->functionName,
tListLen(pExp->pExpr->_function.functionName));
strncpy(pExp->pExpr->_function.functionName, pFuncNode->functionName, tListLen(pExp->pExpr->_function.functionName));
// TODO: value parameter needs to be handled
int32_t numOfParam = LIST_LENGTH(pFuncNode->pParameterList);
......@@ -8691,21 +8782,12 @@ SExprInfo* createExprInfo(SNodeList* pNodeList, SNodeList* pGroupKeys, int32_t*
for (int32_t j = 0; j < numOfParam; ++j) {
SNode* p1 = nodesListGetNode(pFuncNode->pParameterList, j);
if (p1->type == QUERY_NODE_COLUMN) {
SColumnNode* pcn = (SColumnNode*)p1; // TODO refactor
SColumnNode* pcn = (SColumnNode*) p1;
pExp->base.pParam[j].type = FUNC_PARAM_TYPE_COLUMN;
pExp->base.pParam[j].pCol = taosMemoryCalloc(1, sizeof(SColumn));
SColumn* pCol = pExp->base.pParam[j].pCol;
pCol->slotId = pcn->slotId;
pCol->bytes = pcn->node.resType.bytes;
pCol->type = pcn->node.resType.type;
pCol->scale = pcn->node.resType.scale;
pCol->precision = pcn->node.resType.precision;
pCol->dataBlockId = pcn->dataBlockId;
pExp->base.pParam[j].pCol = createColumn(pcn->dataBlockId, pcn->slotId, &pcn->node.resType);
} else if (p1->type == QUERY_NODE_VALUE) {
SValueNode* pvn = (SValueNode*)p1;
pExp->base.pParam[j].type = FUNC_PARAM_TYPE_VALUE;
}
}
......@@ -8715,21 +8797,14 @@ SExprInfo* createExprInfo(SNodeList* pNodeList, SNodeList* pGroupKeys, int32_t*
pExp->base.pParam = taosMemoryCalloc(1, sizeof(SFunctParam));
pExp->base.numOfParams = 1;
pExp->base.pParam[0].pCol = taosMemoryCalloc(1, sizeof(SColumn));
pExp->base.pParam[0].type = FUNC_PARAM_TYPE_COLUMN;
SDataType* pType = &pNode->node.resType;
pExp->base.resSchema = createResSchema(pType->type, pType->bytes, pTargetNode->slotId, pType->scale,
pType->precision, pNode->node.aliasName);
pExp->base.resSchema = createResSchema(pType->type, pType->bytes, pTargetNode->slotId, pType->scale, pType->precision, pNode->node.aliasName);
pExp->pExpr->_optrRoot.pRootNode = pTargetNode->pExpr;
SColumn* pCol = pExp->base.pParam[0].pCol;
pCol->slotId = pTargetNode->slotId; // TODO refactor
pCol->bytes = pType->bytes;
pCol->type = pType->type;
pCol->scale = pType->scale;
pCol->precision = pType->precision;
pExp->base.pParam[0].type = FUNC_PARAM_TYPE_COLUMN;
pExp->base.pParam[0].pCol = createColumn(pTargetNode->dataBlockId, pTargetNode->slotId, pType);
} else {
ASSERT(0);
}
......@@ -8738,12 +8813,13 @@ SExprInfo* createExprInfo(SNodeList* pNodeList, SNodeList* pGroupKeys, int32_t*
return pExprs;
}
static SExecTaskInfo* createExecTaskInfo(uint64_t queryId, uint64_t taskId) {
static SExecTaskInfo* createExecTaskInfo(uint64_t queryId, uint64_t taskId, EOPTR_EXEC_MODEL model) {
SExecTaskInfo* pTaskInfo = taosMemoryCalloc(1, sizeof(SExecTaskInfo));
setTaskStatus(pTaskInfo, TASK_NOT_COMPLETED);
pTaskInfo->cost.created = taosGetTimestampMs();
pTaskInfo->id.queryId = queryId;
pTaskInfo->execModel = model;
char* p = taosMemoryCalloc(1, 128);
snprintf(p, 128, "TID:0x%" PRIx64 " QID:0x%" PRIx64, taskId, queryId);
......@@ -8763,17 +8839,15 @@ static SArray* extractColumnInfo(SNodeList* pNodeList);
static SArray* extractColMatchInfo(SNodeList* pNodeList, SDataBlockDescNode* pOutputNodeList, int32_t* numOfOutputCols);
static SArray* createSortInfo(SNodeList* pNodeList);
SOperatorInfo* doCreateOperatorTreeNode(SPhysiNode* pPhyNode, SExecTaskInfo* pTaskInfo, SReadHandle* pHandle,
SOperatorInfo* createOperatorTree(SPhysiNode* pPhyNode, SExecTaskInfo* pTaskInfo, SReadHandle* pHandle,
uint64_t queryId, uint64_t taskId, STableGroupInfo* pTableGroupInfo) {
if (pPhyNode->pChildren == NULL || LIST_LENGTH(pPhyNode->pChildren) == 0) {
if (QUERY_NODE_PHYSICAL_PLAN_TABLE_SCAN == nodeType(pPhyNode)) {
SScanPhysiNode* pScanPhyNode = (SScanPhysiNode*)pPhyNode;
int32_t numOfCols = 0;
tsdbReaderT pDataReader =
doCreateDataReader((STableScanPhysiNode*)pPhyNode, pHandle, pTableGroupInfo, (uint64_t)queryId, taskId);
SArray* pColList =
extractColMatchInfo(pScanPhyNode->pScanCols, pScanPhyNode->node.pOutputDataBlockDesc, &numOfCols);
tsdbReaderT pDataReader = doCreateDataReader((STableScanPhysiNode*)pPhyNode, pHandle, pTableGroupInfo, (uint64_t)queryId, taskId);
SArray* pColList = extractColMatchInfo(pScanPhyNode->pScanCols, pScanPhyNode->node.pOutputDataBlockDesc, &numOfCols);
return createTableScanOperatorInfo(pDataReader, pScanPhyNode->order, numOfCols, pScanPhyNode->count,
pScanPhyNode->reverse, pColList, pTaskInfo);
......@@ -8816,7 +8890,7 @@ SOperatorInfo* doCreateOperatorTreeNode(SPhysiNode* pPhyNode, SExecTaskInfo* pTa
assert(size == 1);
SPhysiNode* pChildNode = (SPhysiNode*)nodesListGetNode(pPhyNode->pChildren, 0);
SOperatorInfo* op = doCreateOperatorTreeNode(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
SOperatorInfo* op = createOperatorTree(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
int32_t num = 0;
SExprInfo* pExprInfo = createExprInfo(((SProjectPhysiNode*)pPhyNode)->pProjections, NULL, &num);
......@@ -8828,7 +8902,7 @@ SOperatorInfo* doCreateOperatorTreeNode(SPhysiNode* pPhyNode, SExecTaskInfo* pTa
for (int32_t i = 0; i < size; ++i) {
SPhysiNode* pChildNode = (SPhysiNode*)nodesListGetNode(pPhyNode->pChildren, i);
SOperatorInfo* op = doCreateOperatorTreeNode(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
SOperatorInfo* op = createOperatorTree(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
int32_t num = 0;
......@@ -8849,7 +8923,7 @@ SOperatorInfo* doCreateOperatorTreeNode(SPhysiNode* pPhyNode, SExecTaskInfo* pTa
for (int32_t i = 0; i < size; ++i) {
SPhysiNode* pChildNode = (SPhysiNode*)nodesListGetNode(pPhyNode->pChildren, i);
SOperatorInfo* op = doCreateOperatorTreeNode(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
SOperatorInfo* op = createOperatorTree(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
SIntervalPhysiNode* pIntervalPhyNode = (SIntervalPhysiNode*)pPhyNode;
......@@ -8858,11 +8932,12 @@ SOperatorInfo* doCreateOperatorTreeNode(SPhysiNode* pPhyNode, SExecTaskInfo* pTa
SExprInfo* pExprInfo = createExprInfo(pIntervalPhyNode->window.pFuncs, NULL, &num);
SSDataBlock* pResBlock = createOutputBuf_rv1(pPhyNode->pOutputDataBlockDesc);
SInterval interval = {.interval = pIntervalPhyNode->interval,
.sliding = pIntervalPhyNode->sliding,
SInterval interval = {.interval = pIntervalPhyNode->interval,
.sliding = pIntervalPhyNode->sliding,
.intervalUnit = pIntervalPhyNode->intervalUnit,
.slidingUnit = pIntervalPhyNode->slidingUnit,
.offset = pIntervalPhyNode->offset};
.slidingUnit = pIntervalPhyNode->slidingUnit,
.offset = pIntervalPhyNode->offset,
.precision = TSDB_TIME_PRECISION_MILLI};
return createIntervalOperatorInfo(op, pExprInfo, num, pResBlock, &interval, pTableGroupInfo, pTaskInfo);
}
} else if (QUERY_NODE_PHYSICAL_PLAN_SORT == nodeType(pPhyNode)) {
......@@ -8870,7 +8945,7 @@ SOperatorInfo* doCreateOperatorTreeNode(SPhysiNode* pPhyNode, SExecTaskInfo* pTa
assert(size == 1);
SPhysiNode* pChildNode = (SPhysiNode*)nodesListGetNode(pPhyNode->pChildren, 0);
SOperatorInfo* op = doCreateOperatorTreeNode(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
SOperatorInfo* op = createOperatorTree(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
SSortPhysiNode* pSortPhyNode = (SSortPhysiNode*)pPhyNode;
......@@ -8882,7 +8957,7 @@ SOperatorInfo* doCreateOperatorTreeNode(SPhysiNode* pPhyNode, SExecTaskInfo* pTa
assert(size == 1);
SPhysiNode* pChildNode = (SPhysiNode*)nodesListGetNode(pPhyNode->pChildren, 0);
SOperatorInfo* op = doCreateOperatorTreeNode(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
SOperatorInfo* op = createOperatorTree(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
SSessionWinodwPhysiNode* pSessionNode = (SSessionWinodwPhysiNode*)pPhyNode;
......@@ -8898,7 +8973,7 @@ SOperatorInfo* doCreateOperatorTreeNode(SPhysiNode* pPhyNode, SExecTaskInfo* pTa
for (int32_t i = 0; i < size; ++i) {
SPhysiNode* pChildNode = taosArrayGetP(pPhyNode->pChildren, i);
SOperatorInfo* op = doCreateOperatorTreeNode(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
SOperatorInfo* op = createOperatorTree(pChildNode, pTaskInfo, pHandle, queryId, taskId, pTableGroupInfo);
return createMultiTableAggOperatorInfo(op, pPhyNode->pTargets, pTaskInfo, pTableGroupInfo);
}
}*/
......@@ -9043,11 +9118,11 @@ SArray* extractColMatchInfo(SNodeList* pNodeList, SDataBlockDescNode* pOutputNod
for (int32_t i = 0; i < num; ++i) {
SSlotDescNode* pNode = (SSlotDescNode*)nodesListGetNode(pOutputNodeList->pSlots, i);
SColMatchInfo* info = taosArrayGet(pList, pNode->slotId);
// if (pNode->output) {
(*numOfOutputCols) += 1;
// } else {
// info->output = false;
// }
if (pNode->output) {
(*numOfOutputCols) += 1;
} else {
info->output = false;
}
}
return pList;
......@@ -9105,18 +9180,18 @@ _error:
return NULL;
}
int32_t createExecTaskInfoImpl(SSubplan* pPlan, SExecTaskInfo** pTaskInfo, SReadHandle* pHandle, uint64_t taskId) {
int32_t createExecTaskInfoImpl(SSubplan* pPlan, SExecTaskInfo** pTaskInfo, SReadHandle* pHandle, uint64_t taskId, EOPTR_EXEC_MODEL model) {
uint64_t queryId = pPlan->id.queryId;
int32_t code = TSDB_CODE_SUCCESS;
*pTaskInfo = createExecTaskInfo(queryId, taskId);
*pTaskInfo = createExecTaskInfo(queryId, taskId, model);
if (*pTaskInfo == NULL) {
code = TSDB_CODE_QRY_OUT_OF_MEMORY;
goto _complete;
}
STableGroupInfo group = {0};
(*pTaskInfo)->pRoot = doCreateOperatorTreeNode(pPlan->pNode, *pTaskInfo, pHandle, queryId, taskId, &group);
(*pTaskInfo)->pRoot = createOperatorTree(pPlan->pNode, *pTaskInfo, pHandle, queryId, taskId, &group);
if (NULL == (*pTaskInfo)->pRoot) {
code = terrno;
goto _complete;
......
......@@ -944,7 +944,7 @@ TEST(testCase, build_executor_tree_Test) {
int32_t code = qStringToSubplan(msg, &plan);
ASSERT_EQ(code, 0);
code = qCreateExecTask(&handle, 2, 1, plan, (void**) &pTaskInfo, &sinkHandle);
code = qCreateExecTask(&handle, 2, 1, plan, (void**) &pTaskInfo, &sinkHandle, OPTR_EXEC_MODEL_BATCH);
ASSERT_EQ(code, 0);
}
......
......@@ -315,31 +315,31 @@ const SBuiltinFuncDefinition funcMgtBuiltins[] = {
{
.name = "_qstartts",
.type = FUNCTION_TYPE_QSTARTTS,
.classification = FUNC_MGT_PSEUDO_COLUMN_FUNC,
.classification = FUNC_MGT_PSEUDO_COLUMN_FUNC | FUNC_MGT_WINDOW_PC_FUNC,
.checkFunc = stubCheckAndGetResultType,
.getEnvFunc = NULL,
.getEnvFunc = getTimePseudoFuncEnv,
.initFunc = NULL,
.sprocessFunc = NULL,
.sprocessFunc = qStartTsFunction,
.finalizeFunc = NULL
},
{
.name = "_qendts",
.type = FUNCTION_TYPE_QENDTS,
.classification = FUNC_MGT_PSEUDO_COLUMN_FUNC,
.classification = FUNC_MGT_PSEUDO_COLUMN_FUNC | FUNC_MGT_WINDOW_PC_FUNC,
.checkFunc = stubCheckAndGetResultType,
.getEnvFunc = NULL,
.getEnvFunc = getTimePseudoFuncEnv,
.initFunc = NULL,
.sprocessFunc = NULL,
.sprocessFunc = qEndTsFunction,
.finalizeFunc = NULL
},
{
.name = "_wstartts",
.type = FUNCTION_TYPE_QSTARTTS,
.type = FUNCTION_TYPE_WSTARTTS,
.classification = FUNC_MGT_PSEUDO_COLUMN_FUNC | FUNC_MGT_WINDOW_PC_FUNC,
.checkFunc = stubCheckAndGetResultType,
.getEnvFunc = NULL,
.getEnvFunc = getTimePseudoFuncEnv,
.initFunc = NULL,
.sprocessFunc = NULL,
.sprocessFunc = winStartTsFunction,
.finalizeFunc = NULL
},
{
......@@ -347,9 +347,9 @@ const SBuiltinFuncDefinition funcMgtBuiltins[] = {
.type = FUNCTION_TYPE_QENDTS,
.classification = FUNC_MGT_PSEUDO_COLUMN_FUNC | FUNC_MGT_WINDOW_PC_FUNC,
.checkFunc = stubCheckAndGetResultType,
.getEnvFunc = NULL,
.getEnvFunc = getTimePseudoFuncEnv,
.initFunc = NULL,
.sprocessFunc = NULL,
.sprocessFunc = winEndTsFunction,
.finalizeFunc = NULL
},
{
......@@ -357,9 +357,9 @@ const SBuiltinFuncDefinition funcMgtBuiltins[] = {
.type = FUNCTION_TYPE_WDURATION,
.classification = FUNC_MGT_PSEUDO_COLUMN_FUNC | FUNC_MGT_WINDOW_PC_FUNC,
.checkFunc = stubCheckAndGetResultType,
.getEnvFunc = NULL,
.getEnvFunc = getTimePseudoFuncEnv,
.initFunc = NULL,
.sprocessFunc = NULL,
.sprocessFunc = winDurFunction,
.finalizeFunc = NULL
}
};
......@@ -368,6 +368,7 @@ const int32_t funcMgtBuiltinsNum = (sizeof(funcMgtBuiltins) / sizeof(SBuiltinFun
int32_t stubCheckAndGetResultType(SFunctionNode* pFunc) {
switch(pFunc->funcType) {
case FUNCTION_TYPE_WDURATION:
case FUNCTION_TYPE_COUNT:
pFunc->node.resType = (SDataType){.bytes = sizeof(int64_t), .type = TSDB_DATA_TYPE_BIGINT};
break;
......@@ -400,14 +401,18 @@ int32_t stubCheckAndGetResultType(SFunctionNode* pFunc) {
}
case FUNCTION_TYPE_CONCAT:
case FUNCTION_TYPE_ROWTS:
case FUNCTION_TYPE_TBNAME:
case FUNCTION_TYPE_QSTARTTS:
case FUNCTION_TYPE_TBNAME: {
// todo
break;
}
case FUNCTION_TYPE_QENDTS:
case FUNCTION_TYPE_WSTARTTS:
case FUNCTION_TYPE_QSTARTTS:
case FUNCTION_TYPE_WENDTS:
case FUNCTION_TYPE_WDURATION:
// todo
case FUNCTION_TYPE_WSTARTTS: {
pFunc->node.resType = (SDataType){.bytes = sizeof(int64_t), .type = TSDB_DATA_TYPE_TIMESTAMP};
break;
}
case FUNCTION_TYPE_ABS:
case FUNCTION_TYPE_CEIL:
......
......@@ -92,6 +92,7 @@ int32_t fmGetScalarFuncExecFuncs(int32_t funcId, SScalarFuncExecFuncs* pFpSet) {
return TSDB_CODE_FAILED;
}
pFpSet->process = funcMgtBuiltins[funcId].sprocessFunc;
pFpSet->getEnv = funcMgtBuiltins[funcId].getEnvFunc;
return TSDB_CODE_SUCCESS;
}
......
......@@ -116,42 +116,6 @@ bool exprTreeApplyFilter(tExprNode *pExpr, const void *pItem, SExprTraverseSupp
return param->nodeFilterFn(pItem, pExpr->_node.info);
}
static void exprTreeToBinaryImpl(SBufferWriter* bw, tExprNode* expr) {
tbufWriteUint8(bw, expr->nodeType);
if (expr->nodeType == TEXPR_VALUE_NODE) {
SVariant* pVal = expr->pVal;
tbufWriteUint32(bw, pVal->nType);
if (pVal->nType == TSDB_DATA_TYPE_BINARY) {
tbufWriteInt32(bw, pVal->nLen);
tbufWrite(bw, pVal->pz, pVal->nLen);
} else {
tbufWriteInt64(bw, pVal->i);
}
} else if (expr->nodeType == TEXPR_COL_NODE) {
SSchema* pSchema = expr->pSchema;
tbufWriteInt16(bw, pSchema->colId);
tbufWriteInt16(bw, pSchema->bytes);
tbufWriteUint8(bw, pSchema->type);
tbufWriteString(bw, pSchema->name);
} else if (expr->nodeType == TEXPR_BINARYEXPR_NODE) {
tbufWriteUint8(bw, expr->_node.optr);
exprTreeToBinaryImpl(bw, expr->_node.pLeft);
exprTreeToBinaryImpl(bw, expr->_node.pRight);
}
}
void exprTreeToBinary(SBufferWriter* bw, tExprNode* expr) {
if (expr != NULL) {
exprTreeToBinaryImpl(bw, expr);
}
}
// TODO: these three functions should be made global
static void* exception_calloc(size_t nmemb, size_t size) {
void* p = taosMemoryCalloc(nmemb, size);
......@@ -230,97 +194,6 @@ tExprNode* exprTreeFromBinary(const void* data, size_t size) {
return exprTreeFromBinaryImpl(&br);
}
tExprNode* exprTreeFromTableName(const char* tbnameCond) {
if (!tbnameCond) {
return NULL;
}
int32_t anchor = CLEANUP_GET_ANCHOR();
tExprNode* expr = exception_calloc(1, sizeof(tExprNode));
CLEANUP_PUSH_VOID_PTR_PTR(true, tExprTreeDestroy, expr, NULL);
expr->nodeType = TEXPR_BINARYEXPR_NODE;
tExprNode* left = exception_calloc(1, sizeof(tExprNode));
expr->_node.pLeft = left;
left->nodeType = TEXPR_COL_NODE;
SSchema* pSchema = exception_calloc(1, sizeof(SSchema));
left->pSchema = pSchema;
// *pSchema = NULL;//*tGetTbnameColumnSchema();
tExprNode* right = exception_calloc(1, sizeof(tExprNode));
expr->_node.pRight = right;
if (strncmp(tbnameCond, QUERY_COND_REL_PREFIX_LIKE, QUERY_COND_REL_PREFIX_LIKE_LEN) == 0) {
right->nodeType = TEXPR_VALUE_NODE;
expr->_node.optr = OP_TYPE_LIKE;
SVariant* pVal = exception_calloc(1, sizeof(SVariant));
right->pVal = pVal;
size_t len = strlen(tbnameCond + QUERY_COND_REL_PREFIX_LIKE_LEN) + 1;
pVal->pz = exception_malloc(len);
memcpy(pVal->pz, tbnameCond + QUERY_COND_REL_PREFIX_LIKE_LEN, len);
pVal->nType = TSDB_DATA_TYPE_BINARY;
pVal->nLen = (int32_t)len;
} else if (strncmp(tbnameCond, QUERY_COND_REL_PREFIX_MATCH, QUERY_COND_REL_PREFIX_MATCH_LEN) == 0) {
right->nodeType = TEXPR_VALUE_NODE;
expr->_node.optr = OP_TYPE_MATCH;
SVariant* pVal = exception_calloc(1, sizeof(SVariant));
right->pVal = pVal;
size_t len = strlen(tbnameCond + QUERY_COND_REL_PREFIX_MATCH_LEN) + 1;
pVal->pz = exception_malloc(len);
memcpy(pVal->pz, tbnameCond + QUERY_COND_REL_PREFIX_MATCH_LEN, len);
pVal->nType = TSDB_DATA_TYPE_BINARY;
pVal->nLen = (int32_t)len;
} else if (strncmp(tbnameCond, QUERY_COND_REL_PREFIX_NMATCH, QUERY_COND_REL_PREFIX_NMATCH_LEN) == 0) {
right->nodeType = TEXPR_VALUE_NODE;
expr->_node.optr = OP_TYPE_NMATCH;
SVariant* pVal = exception_calloc(1, sizeof(SVariant));
right->pVal = pVal;
size_t len = strlen(tbnameCond + QUERY_COND_REL_PREFIX_NMATCH_LEN) + 1;
pVal->pz = exception_malloc(len);
memcpy(pVal->pz, tbnameCond + QUERY_COND_REL_PREFIX_NMATCH_LEN, len);
pVal->nType = TSDB_DATA_TYPE_BINARY;
pVal->nLen = (int32_t)len;
} else if (strncmp(tbnameCond, QUERY_COND_REL_PREFIX_IN, QUERY_COND_REL_PREFIX_IN_LEN) == 0) {
right->nodeType = TEXPR_VALUE_NODE;
expr->_node.optr = OP_TYPE_IN;
SVariant* pVal = exception_calloc(1, sizeof(SVariant));
right->pVal = pVal;
pVal->nType = TSDB_DATA_TYPE_POINTER_ARRAY;
pVal->arr = taosArrayInit(2, POINTER_BYTES);
const char* cond = tbnameCond + QUERY_COND_REL_PREFIX_IN_LEN;
for (const char *e = cond; *e != 0; e++) {
if (*e == TS_PATH_DELIMITER[0]) {
cond = e + 1;
} else if (*e == ',') {
size_t len = e - cond;
char* p = exception_malloc(len + VARSTR_HEADER_SIZE);
STR_WITH_SIZE_TO_VARSTR(p, cond, (VarDataLenT)len);
cond += len;
taosArrayPush(pVal->arr, &p);
}
}
if (*cond != 0) {
size_t len = strlen(cond) + VARSTR_HEADER_SIZE;
char* p = exception_malloc(len);
STR_WITH_SIZE_TO_VARSTR(p, cond, (VarDataLenT)(len - VARSTR_HEADER_SIZE));
taosArrayPush(pVal->arr, &p);
}
taosArraySortString(pVal->arr, taosArrayCompareString);
}
CLEANUP_EXECUTE_TO(anchor, false);
return expr;
}
void buildFilterSetFromBinary(void **q, const char *buf, int32_t len) {
SBufferReader br = tbufInitReader(buf, len, false);
uint32_t type = tbufReadUint32(&br);
......
#include "tunaryoperator.h"
// TODO dynamic define these functions
//_unary_scalar_fn_t getUnaryScalarOperatorFn(int32_t operator) {
// assert(0);
//}
//bool isStringOperatorFn(int32_t op) {
// return op == FUNCTION_LENGTH;
//}
/*
* Copyright (c) 2019 TAOS Data, Inc. <jhtao@taosdata.com>
*
* This program is free software: you can use, redistribute, and/or modify
* it under the terms of the GNU Affero General Public License, version 3
* or later ("AGPL"), as published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful, but WITHOUT
* ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
* FITNESS FOR A PARTICULAR PURPOSE.
*
* You should have received a copy of the GNU Affero General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#ifndef __INDEX_FST_DFA_H__
#define __INDEX_FST_DFA_H__
#include "indexFstRegex.h"
#include "indexFstSparse.h"
#include "tarray.h"
#include "thash.h"
#ifdef __cplusplus
extern "C" {
#endif
typedef struct FstDfa FstDfa;
typedef struct {
SArray * insts;
uint32_t next[256];
bool isMatch;
} State;
/*
* dfa builder related func
**/
typedef struct FstDfaBuilder {
FstDfa * dfa;
SHashObj *cache;
} FstDfaBuilder;
FstDfaBuilder *dfaBuilderCreate(SArray *insts);
void dfaBuilderDestroy(FstDfaBuilder *builder);
FstDfa *dfaBuilderBuild(FstDfaBuilder *builder);
bool dfaBuilderRunState(FstDfaBuilder *builder, FstSparseSet *cur, FstSparseSet *next, uint32_t state, uint8_t bytes,
uint32_t *result);
bool dfaBuilderCachedState(FstDfaBuilder *builder, FstSparseSet *set, uint32_t *result);
/*
* dfa related func
**/
typedef struct FstDfa {
SArray *insts;
SArray *states;
} FstDfa;
FstDfa *dfaCreate(SArray *insts, SArray *states);
bool dfaIsMatch(FstDfa *dfa, uint32_t si);
bool dfaAccept(FstDfa *dfa, uint32_t si, uint8_t byte, uint32_t *result);
void dfaAdd(FstDfa *dfa, FstSparseSet *set, uint32_t ip);
bool dfaRun(FstDfa *dfa, FstSparseSet *from, FstSparseSet *to, uint8_t byte);
#ifdef __cplusplus
}
#endif
#endif
/*
* Copyright (c) 2019 TAOS Data, Inc. <jhtao@taosdata.com>
*
* This program is free software: you can use, redistribute, and/or modify
* it under the terms of the GNU Affero General Public License, version 3
* or later ("AGPL"), as published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful, but WITHOUT
* ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
* FITNESS FOR A PARTICULAR PURPOSE.
*
* You should have received a copy of the GNU Affero General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#ifndef _TD_INDEX_FST_REGEX_H_
#define _TD_INDEX_FST_REGEX_H_
//#include "indexFstDfa.h"
#include "taos.h"
#include "tarray.h"
#include "tchecksum.h"
#include "thash.h"
#include "tlog.h"
#include "tutil.h"
#ifdef __cplusplus
extern "C" {
#endif
typedef enum { MATCH, JUMP, SPLIT, RANGE } InstType;
typedef struct MatchValue {
} MatchValue;
typedef struct JumpValue {
uint32_t step;
} JumpValue;
typedef struct SplitValue {
uint32_t len1;
uint32_t len2;
} SplitValue;
typedef struct RangeValue {
uint8_t start;
uint8_t end;
} RangeValue;
typedef struct {
InstType ty;
union {
MatchValue mv;
JumpValue jv;
SplitValue sv;
RangeValue rv;
};
} Inst;
typedef struct {
char *orig;
void *dfa;
} FstRegex;
FstRegex *regexCreate(const char *str);
void regexSetup(FstRegex *regex, uint32_t size, const char *str);
// uint32_t regexStart()
#ifdef __cplusplus
}
#endif
#endif
......@@ -13,8 +13,8 @@
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#ifndef _TD_INDEX_SPARSE_H_
#define _TD_INDEX_SPARSE_H_
#ifndef _TD_INDEX_FST_SPARSE_H_
#define _TD_INDEX_FST_SPARSE_H_
#include "tarray.h"
......
/*
* Copyright (c) 2019 TAOS Data, Inc. <jhtao@taosdata.com>
*
* This program is free software: you can use, redistribute, and/or modify
* it under the terms of the GNU Affero General Public License, version 3
* or later ("AGPL"), as published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful, but WITHOUT
* ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
* FITNESS FOR A PARTICULAR PURPOSE.
*
* You should have received a copy of the GNU Affero General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "indexFstDfa.h"
#include "thash.h"
const static uint32_t STATE_LIMIT = 1000;
static int dfaInstsEqual(const void *a, const void *b, size_t size) {
SArray *ar = (SArray *)a;
SArray *br = (SArray *)b;
size_t al = ar != NULL ? taosArrayGetSize(ar) : 0;
size_t bl = br != NULL ? taosArrayGetSize(br) : 0;
if (al != bl) {
return -1;
}
for (int i = 0; i < al; i++) {
uint32_t v1 = *(uint32_t *)taosArrayGet(ar, i);
uint32_t v2 = *(uint32_t *)taosArrayGet(br, i);
if (v1 != v2) {
return -1;
}
}
return 0;
}
FstDfaBuilder *dfaBuilderCreate(SArray *insts) {
FstDfaBuilder *builder = taosMemoryCalloc(1, sizeof(FstDfaBuilder));
if (builder == NULL) {
return NULL;
}
SArray *states = taosArrayInit(4, sizeof(State));
builder->dfa = dfaCreate(insts, states);
builder->cache = taosHashInit(
4, taosGetDefaultHashFunction(POINTER_BYTES == sizeof(int64_t) ? TSDB_DATA_TYPE_BIGINT : TSDB_DATA_TYPE_INT),
false, HASH_NO_LOCK);
taosHashSetEqualFp(builder->cache, dfaInstsEqual);
return builder;
}
void dfaBuilderDestroy(FstDfaBuilder *builder) {
if (builder == NULL) {
return;
}
void *pIter = builder->cache != NULL ? taosHashIterate(builder->cache, NULL) : NULL;
while (pIter) {
SArray **key = pIter;
taosArrayDestroy(*key);
pIter = taosHashIterate(builder->cache, pIter);
}
taosHashCleanup(builder->cache);
}
FstDfa *dfaBuilderBuild(FstDfaBuilder *builder) {
uint32_t sz = taosArrayGetSize(builder->dfa->insts);
FstSparseSet *cur = sparSetCreate(sz);
FstSparseSet *nxt = sparSetCreate(sz);
dfaAdd(builder->dfa, cur, 0);
SArray * states = taosArrayInit(0, sizeof(uint32_t));
uint32_t result;
if (dfaBuilderCachedState(builder, cur, &result)) {
taosArrayPush(states, &result);
}
SHashObj *seen = taosHashInit(12, taosGetDefaultHashFunction(TSDB_DATA_TYPE_INT), false, HASH_NO_LOCK);
while (taosArrayGetSize(states) != 0) {
result = *(uint32_t *)taosArrayPop(states);
for (int i = 0; i < 256; i++) {
uint32_t ns, dummpy = 0;
if (dfaBuilderRunState(builder, cur, nxt, result, i, &ns)) {
if (taosHashGet(seen, &ns, sizeof(ns)) == NULL) {
taosHashPut(seen, &ns, sizeof(ns), &dummpy, sizeof(dummpy));
taosArrayPush(states, &ns);
}
}
if (taosArrayGetSize(builder->dfa->states) > STATE_LIMIT) {
// Too many state;
//
}
}
}
taosArrayDestroy(states);
taosHashCleanup(seen);
return builder->dfa;
}
bool dfaBuilderRunState(FstDfaBuilder *builder, FstSparseSet *cur, FstSparseSet *next, uint32_t state, uint8_t byte,
uint32_t *result) {
sparSetClear(cur);
State *t = taosArrayGet(builder->dfa->states, state);
for (int i = 0; i < taosArrayGetSize(t->insts); i++) {
uint32_t ip = *(int32_t *)taosArrayGet(t->insts, i);
sparSetAdd(cur, ip);
}
dfaRun(builder->dfa, cur, next, byte);
t = taosArrayGet(builder->dfa->states, state);
uint32_t nxtState;
if (dfaBuilderCachedState(builder, next, &nxtState)) {
t->next[byte] = nxtState;
*result = nxtState;
return true;
}
return false;
}
bool dfaBuilderCachedState(FstDfaBuilder *builder, FstSparseSet *set, uint32_t *result) {
SArray *tinsts = taosArrayInit(4, sizeof(uint32_t));
bool isMatch = false;
for (int i = 0; i < sparSetLen(set); i++) {
uint32_t ip = sparSetGet(set, i);
Inst *inst = taosArrayGet(builder->dfa->insts, ip);
if (inst->ty == JUMP || inst->ty == SPLIT) {
continue;
} else if (inst->ty == RANGE) {
taosArrayPush(tinsts, &ip);
} else if (inst->ty == MATCH) {
isMatch = true;
taosArrayPush(tinsts, &ip);
}
}
if (taosArrayGetSize(tinsts) == 0) {
return false;
}
uint32_t *v = taosHashGet(builder->cache, &tinsts, sizeof(POINTER_BYTES));
if (v != NULL) {
*result = *v;
taosArrayDestroy(tinsts);
} else {
State st;
st.insts = tinsts;
st.isMatch = isMatch;
taosArrayPush(builder->dfa->states, &st);
int32_t sz = taosArrayGetSize(builder->dfa->states) - 1;
taosHashPut(builder->cache, &tinsts, sizeof(POINTER_BYTES), &sz, sizeof(sz));
*result = sz;
}
return true;
}
FstDfa *dfaCreate(SArray *insts, SArray *states) {
FstDfa *dfa = taosMemoryCalloc(1, sizeof(FstDfa));
if (dfa == NULL) {
return NULL;
}
dfa->insts = insts;
dfa->states = states;
return dfa;
}
bool dfaIsMatch(FstDfa *dfa, uint32_t si) {
if (dfa->states == NULL || si < taosArrayGetSize(dfa->states)) {
return false;
}
State *st = taosArrayGet(dfa->states, si);
return st != NULL ? st->isMatch : false;
}
bool dfaAccept(FstDfa *dfa, uint32_t si, uint8_t byte, uint32_t *result) {
if (dfa->states == NULL || si < taosArrayGetSize(dfa->states)) {
return false;
}
State *st = taosArrayGet(dfa->states, si);
*result = st->next[byte];
return true;
}
void dfaAdd(FstDfa *dfa, FstSparseSet *set, uint32_t ip) {
if (sparSetContains(set, ip)) {
return;
}
sparSetAdd(set, ip);
Inst *inst = taosArrayGet(dfa->insts, ip);
if (inst->ty == MATCH || inst->ty == RANGE) {
// do nothing
} else if (inst->ty == JUMP) {
dfaAdd(dfa, set, inst->jv.step);
} else if (inst->ty == SPLIT) {
dfaAdd(dfa, set, inst->sv.len1);
dfaAdd(dfa, set, inst->sv.len2);
}
return;
}
bool dfaRun(FstDfa *dfa, FstSparseSet *from, FstSparseSet *to, uint8_t byte) {
bool isMatch = false;
sparSetClear(to);
for (int i = 0; i < sparSetLen(from); i++) {
uint32_t ip = sparSetGet(from, i);
Inst *inst = taosArrayGet(dfa->insts, ip);
if (inst->ty == JUMP || inst->ty == SPLIT) {
continue;
} else if (inst->ty == MATCH) {
isMatch = true;
} else if (inst->ty == RANGE) {
if (inst->rv.start <= byte && byte <= inst->rv.end) {
dfaAdd(dfa, to, ip + 1);
}
}
}
return isMatch;
}
/*
* Copyright (c) 2019 TAOS Data, Inc. <jhtao@taosdata.com>
*
* This program is free software: you can use, redistribute, and/or modify
* it under the terms of the GNU Affero General Public License, version 3
* or later ("AGPL"), as published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful, but WITHOUT
* ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
* FITNESS FOR A PARTICULAR PURPOSE.
*
* You should have received a copy of the GNU Affero General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "indexFstRegex.h"
#include "indexFstSparse.h"
FstRegex *regexCreate(const char *str) {
FstRegex *regex = taosMemoryCalloc(1, sizeof(FstRegex));
if (regex == NULL) {
return NULL;
}
int32_t sz = (int32_t)strlen(str);
char * orig = taosMemoryCalloc(1, sz);
memcpy(orig, str, sz);
regex->orig = orig;
}
void regexSetup(FstRegex *regex, uint32_t size, const char *str) {
// return
// return;
}
......@@ -13,7 +13,7 @@
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "indexSparse.h"
#include "indexFstSparse.h"
FstSparseSet *sparSetCreate(int32_t sz) {
FstSparseSet *ss = taosMemoryCalloc(1, sizeof(FstSparseSet));
......
......@@ -1057,6 +1057,7 @@ static const char* jkIntervalPhysiPlanIntervalUnit = "intervalUnit";
static const char* jkIntervalPhysiPlanSlidingUnit = "slidingUnit";
static const char* jkIntervalPhysiPlanFill = "Fill";
static const char* jkIntervalPhysiPlanTsPk = "TsPk";
static const char* jkIntervalPhysiPlanPrecision = "Precision";
static int32_t physiIntervalNodeToJson(const void* pObj, SJson* pJson) {
const SIntervalPhysiNode* pNode = (const SIntervalPhysiNode*)pObj;
......@@ -1083,6 +1084,9 @@ static int32_t physiIntervalNodeToJson(const void* pObj, SJson* pJson) {
if (TSDB_CODE_SUCCESS == code) {
code = tjsonAddObject(pJson, jkIntervalPhysiPlanTsPk, nodeToJson, pNode->pTspk);
}
if (TSDB_CODE_SUCCESS == code) {
code = tjsonAddIntegerToObject(pJson, jkIntervalPhysiPlanPrecision, pNode->precision);
}
return code;
}
......@@ -1112,6 +1116,9 @@ static int32_t jsonToPhysiIntervalNode(const SJson* pJson, void* pObj) {
if (TSDB_CODE_SUCCESS == code) {
code = jsonToNodeObject(pJson, jkIntervalPhysiPlanTsPk, (SNode**)&pNode->pTspk);
}
if (TSDB_CODE_SUCCESS == code) {
code = tjsonGetUTinyIntValue(pJson, jkIntervalPhysiPlanPrecision, &pNode->precision);
}
return code;
}
......
......@@ -82,6 +82,8 @@ SNodeptr nodesMakeNode(ENodeType type) {
return makeNode(type, sizeof(STableOptions));
case QUERY_NODE_INDEX_OPTIONS:
return makeNode(type, sizeof(SIndexOptions));
case QUERY_NODE_EXPLAIN_OPTIONS:
return makeNode(type, sizeof(SExplainOptions));
case QUERY_NODE_SET_OPERATOR:
return makeNode(type, sizeof(SSetOperator));
case QUERY_NODE_SELECT_STMT:
......@@ -132,6 +134,8 @@ SNodeptr nodesMakeNode(ENodeType type) {
return makeNode(type, sizeof(SCreateTopicStmt));
case QUERY_NODE_DROP_TOPIC_STMT:
return makeNode(type, sizeof(SDropTopicStmt));
case QUERY_NODE_EXPLAIN_STMT:
return makeNode(type, sizeof(SExplainStmt));
case QUERY_NODE_SHOW_DATABASES_STMT:
case QUERY_NODE_SHOW_TABLES_STMT:
case QUERY_NODE_SHOW_STABLES_STMT:
......@@ -204,49 +208,159 @@ SNodeptr nodesMakeNode(ENodeType type) {
return NULL;
}
static EDealRes destroyNode(SNode** pNode, void* pContext) {
switch (nodeType(*pNode)) {
static void destroyVgDataBlockArray(SArray* pArray) {
size_t size = taosArrayGetSize(pArray);
for (size_t i = 0; i < size; ++i) {
SVgDataBlocks* pVg = taosArrayGetP(pArray, i);
taosMemoryFreeClear(pVg->pData);
taosMemoryFreeClear(pVg);
}
taosArrayDestroy(pArray);
}
static void destroyLogicNode(SLogicNode* pNode) {
nodesDestroyList(pNode->pChildren);
nodesDestroyNode(pNode->pConditions);
nodesDestroyList(pNode->pTargets);
}
static void destroyPhysiNode(SPhysiNode* pNode) {
nodesDestroyList(pNode->pChildren);
nodesDestroyNode(pNode->pConditions);
nodesDestroyNode(pNode->pOutputDataBlockDesc);
}
static void destroyWinodwPhysiNode(SWinodwPhysiNode* pNode) {
destroyPhysiNode((SPhysiNode*)pNode);
nodesDestroyList(pNode->pExprs);
nodesDestroyList(pNode->pFuncs);
}
static void destroyScanPhysiNode(SScanPhysiNode* pNode) {
destroyPhysiNode((SPhysiNode*)pNode);
nodesDestroyList(pNode->pScanCols);
}
static void destroyDataSinkNode(SDataSinkNode* pNode) {
nodesDestroyNode(pNode->pInputDataBlockDesc);
}
void nodesDestroyNode(SNodeptr pNode) {
if (NULL == pNode) {
return;
}
switch (nodeType(pNode)) {
case QUERY_NODE_COLUMN: // pProjectRef is weak reference, no need to release
break;
case QUERY_NODE_VALUE: {
SValueNode* pValue = (SValueNode*)*pNode;
SValueNode* pValue = (SValueNode*)pNode;
taosMemoryFreeClear(pValue->literal);
if (IS_VAR_DATA_TYPE(pValue->node.resType.type)) {
taosMemoryFreeClear(pValue->datum.p);
}
break;
}
case QUERY_NODE_OPERATOR: {
SOperatorNode* pOp = (SOperatorNode*)pNode;
nodesDestroyNode(pOp->pLeft);
nodesDestroyNode(pOp->pRight);
break;
}
case QUERY_NODE_LOGIC_CONDITION:
nodesClearList(((SLogicConditionNode*)(*pNode))->pParameterList);
nodesDestroyList(((SLogicConditionNode*)pNode)->pParameterList);
break;
case QUERY_NODE_FUNCTION:
nodesClearList(((SFunctionNode*)(*pNode))->pParameterList);
nodesDestroyList(((SFunctionNode*)pNode)->pParameterList);
break;
case QUERY_NODE_REAL_TABLE: {
SRealTableNode* pReal = (SRealTableNode*)*pNode;
SRealTableNode* pReal = (SRealTableNode*)pNode;
taosMemoryFreeClear(pReal->pMeta);
taosMemoryFreeClear(pReal->pVgroupList);
break;
}
case QUERY_NODE_TEMP_TABLE:
nodesDestroyNode(((STempTableNode*)(*pNode))->pSubquery);
nodesDestroyNode(((STempTableNode*)pNode)->pSubquery);
break;
case QUERY_NODE_JOIN_TABLE: {
SJoinTableNode* pJoin = (SJoinTableNode*)pNode;
nodesDestroyNode(pJoin->pLeft);
nodesDestroyNode(pJoin->pRight);
nodesDestroyNode(pJoin->pOnCond);
break;
}
case QUERY_NODE_GROUPING_SET:
nodesClearList(((SGroupingSetNode*)(*pNode))->pParameterList);
nodesDestroyList(((SGroupingSetNode*)pNode)->pParameterList);
break;
case QUERY_NODE_ORDER_BY_EXPR:
nodesDestroyNode(((SOrderByExprNode*)pNode)->pExpr);
break;
case QUERY_NODE_LIMIT: // no pointer field
break;
case QUERY_NODE_STATE_WINDOW:
nodesDestroyNode(((SStateWindowNode*)pNode)->pCol);
break;
case QUERY_NODE_SESSION_WINDOW: {
SSessionWindowNode* pSession = (SSessionWindowNode*)pNode;
nodesDestroyNode(pSession->pCol);
nodesDestroyNode(pSession->pGap);
break;
}
case QUERY_NODE_INTERVAL_WINDOW: {
SIntervalWindowNode* pJoin = (SIntervalWindowNode*)pNode;
nodesDestroyNode(pJoin->pCol);
nodesDestroyNode(pJoin->pInterval);
nodesDestroyNode(pJoin->pOffset);
nodesDestroyNode(pJoin->pSliding);
nodesDestroyNode(pJoin->pFill);
break;
}
case QUERY_NODE_NODE_LIST:
nodesClearList(((SNodeListNode*)(*pNode))->pNodeList);
nodesDestroyList(((SNodeListNode*)pNode)->pNodeList);
break;
case QUERY_NODE_FILL:
nodesDestroyNode(((SFillNode*)pNode)->pValues);
break;
case QUERY_NODE_RAW_EXPR:
nodesDestroyNode(((SRawExprNode*)pNode)->pNode);
break;
case QUERY_NODE_TARGET:
nodesDestroyNode(((STargetNode*)pNode)->pExpr);
break;
case QUERY_NODE_DATABLOCK_DESC:
nodesDestroyList(((SDataBlockDescNode*)pNode)->pSlots);
break;
case QUERY_NODE_SLOT_DESC: // no pointer field
case QUERY_NODE_COLUMN_DEF: // no pointer field
case QUERY_NODE_DOWNSTREAM_SOURCE: // no pointer field
break;
case QUERY_NODE_DATABASE_OPTIONS:
nodesDestroyList(((SDatabaseOptions*)pNode)->pRetentions);
break;
case QUERY_NODE_TABLE_OPTIONS: {
STableOptions* pStmt = (STableOptions*)pNode;
nodesDestroyList(pStmt->pSma);
nodesDestroyList(pStmt->pFuncs);
break;
}
case QUERY_NODE_INDEX_OPTIONS: {
SIndexOptions* pStmt = (SIndexOptions*)*pNode;
SIndexOptions* pStmt = (SIndexOptions*)pNode;
nodesDestroyList(pStmt->pFuncs);
nodesDestroyNode(pStmt->pInterval);
nodesDestroyNode(pStmt->pOffset);
nodesDestroyNode(pStmt->pSliding);
break;
}
case QUERY_NODE_SET_OPERATOR: {
SSetOperator* pStmt = (SSetOperator*)pNode;
nodesDestroyNode(pStmt->pLeft);
nodesDestroyNode(pStmt->pRight);
nodesDestroyList(pStmt->pOrderByList);
nodesDestroyNode(pStmt->pLimit);
break;
}
case QUERY_NODE_SELECT_STMT: {
SSelectStmt* pStmt = (SSelectStmt*)*pNode;
SSelectStmt* pStmt = (SSelectStmt*)pNode;
nodesDestroyList(pStmt->pProjectionList);
nodesDestroyNode(pStmt->pFromTable);
nodesDestroyNode(pStmt->pWhere);
......@@ -259,50 +373,255 @@ static EDealRes destroyNode(SNode** pNode, void* pContext) {
nodesDestroyNode(pStmt->pSlimit);
break;
}
case QUERY_NODE_VNODE_MODIF_STMT: {
SVnodeModifOpStmt* pStmt = (SVnodeModifOpStmt*)*pNode;
size_t size = taosArrayGetSize(pStmt->pDataBlocks);
for (size_t i = 0; i < size; ++i) {
SVgDataBlocks* pVg = taosArrayGetP(pStmt->pDataBlocks, i);
taosMemoryFreeClear(pVg->pData);
taosMemoryFreeClear(pVg);
}
taosArrayDestroy(pStmt->pDataBlocks);
case QUERY_NODE_VNODE_MODIF_STMT:
destroyVgDataBlockArray(((SVnodeModifOpStmt*)pNode)->pDataBlocks);
break;
case QUERY_NODE_CREATE_DATABASE_STMT:
nodesDestroyNode(((SCreateDatabaseStmt*)pNode)->pOptions);
break;
case QUERY_NODE_DROP_DATABASE_STMT: // no pointer field
break;
case QUERY_NODE_ALTER_DATABASE_STMT:
nodesDestroyNode(((SAlterDatabaseStmt*)pNode)->pOptions);
break;
}
case QUERY_NODE_CREATE_TABLE_STMT: {
SCreateTableStmt* pStmt = (SCreateTableStmt*)*pNode;
SCreateTableStmt* pStmt = (SCreateTableStmt*)pNode;
nodesDestroyList(pStmt->pCols);
nodesDestroyList(pStmt->pTags);
nodesDestroyNode(pStmt->pOptions);
break;
}
case QUERY_NODE_CREATE_SUBTABLE_CLAUSE: {
SCreateSubTableClause* pStmt = (SCreateSubTableClause*)*pNode;
SCreateSubTableClause* pStmt = (SCreateSubTableClause*)pNode;
nodesDestroyList(pStmt->pSpecificTags);
nodesDestroyList(pStmt->pValsOfTags);
break;
}
case QUERY_NODE_CREATE_MULTI_TABLE_STMT:
nodesDestroyList(((SCreateMultiTableStmt*)(*pNode))->pSubTables);
nodesDestroyList(((SCreateMultiTableStmt*)pNode)->pSubTables);
break;
case QUERY_NODE_DROP_TABLE_CLAUSE: // no pointer field
break;
case QUERY_NODE_DROP_TABLE_STMT:
nodesDestroyNode(((SDropTableStmt*)pNode)->pTables);
break;
case QUERY_NODE_DROP_SUPER_TABLE_STMT: // no pointer field
break;
case QUERY_NODE_ALTER_TABLE_STMT: {
SAlterTableStmt* pStmt = (SAlterTableStmt*)pNode;
nodesDestroyNode(pStmt->pOptions);
nodesDestroyNode(pStmt->pVal);
break;
}
case QUERY_NODE_CREATE_USER_STMT: // no pointer field
case QUERY_NODE_ALTER_USER_STMT: // no pointer field
case QUERY_NODE_DROP_USER_STMT: // no pointer field
case QUERY_NODE_USE_DATABASE_STMT: // no pointer field
case QUERY_NODE_CREATE_DNODE_STMT: // no pointer field
case QUERY_NODE_DROP_DNODE_STMT: // no pointer field
case QUERY_NODE_ALTER_DNODE_STMT: // no pointer field
break;
case QUERY_NODE_CREATE_INDEX_STMT: {
SCreateIndexStmt* pStmt = (SCreateIndexStmt*)*pNode;
SCreateIndexStmt* pStmt = (SCreateIndexStmt*)pNode;
nodesDestroyNode(pStmt->pOptions);
nodesDestroyList(pStmt->pCols);
break;
}
case QUERY_NODE_DROP_INDEX_STMT: // no pointer field
case QUERY_NODE_CREATE_QNODE_STMT: // no pointer field
case QUERY_NODE_DROP_QNODE_STMT: // no pointer field
break;
case QUERY_NODE_CREATE_TOPIC_STMT:
nodesDestroyNode(((SCreateTopicStmt*)pNode)->pQuery);
break;
case QUERY_NODE_DROP_TOPIC_STMT: // no pointer field
case QUERY_NODE_ALTER_LOCAL_STMT: // no pointer field
break;
case QUERY_NODE_SHOW_DATABASES_STMT:
case QUERY_NODE_SHOW_TABLES_STMT:
case QUERY_NODE_SHOW_STABLES_STMT:
case QUERY_NODE_SHOW_USERS_STMT:
case QUERY_NODE_SHOW_DNODES_STMT:
case QUERY_NODE_SHOW_VGROUPS_STMT:
case QUERY_NODE_SHOW_MNODES_STMT:
case QUERY_NODE_SHOW_MODULES_STMT:
case QUERY_NODE_SHOW_QNODES_STMT:
case QUERY_NODE_SHOW_FUNCTIONS_STMT:
case QUERY_NODE_SHOW_INDEXES_STMT:
case QUERY_NODE_SHOW_STREAMS_STMT: {
SShowStmt* pStmt = (SShowStmt*)pNode;
nodesDestroyNode(pStmt->pDbName);
nodesDestroyNode(pStmt->pTbNamePattern);
break;
}
case QUERY_NODE_LOGIC_PLAN_SCAN: {
SScanLogicNode* pLogicNode = (SScanLogicNode*)pNode;
destroyLogicNode((SLogicNode*)pLogicNode);
nodesDestroyList(pLogicNode->pScanCols);
taosMemoryFreeClear(pLogicNode->pMeta);
taosMemoryFreeClear(pLogicNode->pVgroupList);
break;
}
case QUERY_NODE_LOGIC_PLAN_JOIN: {
SJoinLogicNode* pLogicNode = (SJoinLogicNode*)pNode;
destroyLogicNode((SLogicNode*)pLogicNode);
nodesDestroyNode(pLogicNode->pOnConditions);
break;
}
case QUERY_NODE_LOGIC_PLAN_AGG: {
SAggLogicNode* pLogicNode = (SAggLogicNode*)pNode;
destroyLogicNode((SLogicNode*)pLogicNode);
nodesDestroyList(pLogicNode->pAggFuncs);
nodesDestroyList(pLogicNode->pGroupKeys);
break;
}
case QUERY_NODE_LOGIC_PLAN_PROJECT: {
SProjectLogicNode* pLogicNode = (SProjectLogicNode*)pNode;
destroyLogicNode((SLogicNode*)pLogicNode);
nodesDestroyList(pLogicNode->pProjections);
break;
}
case QUERY_NODE_LOGIC_PLAN_VNODE_MODIF: {
SVnodeModifLogicNode* pLogicNode = (SVnodeModifLogicNode*)pNode;
destroyLogicNode((SLogicNode*)pLogicNode);
destroyVgDataBlockArray(pLogicNode->pDataBlocks);
// pVgDataBlocks is weak reference
break;
}
case QUERY_NODE_LOGIC_PLAN_EXCHANGE:
destroyLogicNode((SLogicNode*)pNode);
break;
case QUERY_NODE_LOGIC_PLAN_WINDOW: {
SWindowLogicNode* pLogicNode = (SWindowLogicNode*)pNode;
destroyLogicNode((SLogicNode*)pLogicNode);
nodesDestroyList(pLogicNode->pFuncs);
nodesDestroyNode(pLogicNode->pFill);
nodesDestroyNode(pLogicNode->pTspk);
break;
}
case QUERY_NODE_LOGIC_PLAN_SORT: {
SSortLogicNode* pLogicNode = (SSortLogicNode*)pNode;
destroyLogicNode((SLogicNode*)pLogicNode);
nodesDestroyList(pLogicNode->pSortKeys);
break;
}
case QUERY_NODE_LOGIC_PLAN_PARTITION: {
SPartitionLogicNode* pLogicNode = (SPartitionLogicNode*)pNode;
destroyLogicNode((SLogicNode*)pLogicNode);
nodesDestroyList(pLogicNode->pPartitionKeys);
break;
}
case QUERY_NODE_LOGIC_SUBPLAN: {
SLogicSubplan* pSubplan = (SLogicSubplan*)pNode;
nodesDestroyList(pSubplan->pChildren);
nodesDestroyNode(pSubplan->pNode);
nodesClearList(pSubplan->pParents);
taosMemoryFreeClear(pSubplan->pVgroupList);
break;
}
case QUERY_NODE_LOGIC_PLAN:
nodesDestroyList(((SQueryLogicPlan*)pNode)->pTopSubplans);
break;
case QUERY_NODE_PHYSICAL_PLAN_TAG_SCAN:
destroyScanPhysiNode((SScanPhysiNode*)pNode);
break;
case QUERY_NODE_PHYSICAL_PLAN_TABLE_SCAN:
destroyScanPhysiNode((SScanPhysiNode*)pNode);
break;
case QUERY_NODE_PHYSICAL_PLAN_TABLE_SEQ_SCAN:
destroyScanPhysiNode((SScanPhysiNode*)pNode);
break;
case QUERY_NODE_PHYSICAL_PLAN_STREAM_SCAN:
destroyScanPhysiNode((SScanPhysiNode*)pNode);
break;
case QUERY_NODE_PHYSICAL_PLAN_SYSTABLE_SCAN:
destroyScanPhysiNode((SScanPhysiNode*)pNode);
break;
case QUERY_NODE_PHYSICAL_PLAN_PROJECT: {
SProjectPhysiNode* pPhyNode = (SProjectPhysiNode*)pNode;
destroyPhysiNode((SPhysiNode*)pPhyNode);
nodesDestroyList(pPhyNode->pProjections);
break;
}
case QUERY_NODE_PHYSICAL_PLAN_JOIN: {
SJoinPhysiNode* pPhyNode = (SJoinPhysiNode*)pNode;
destroyPhysiNode((SPhysiNode*)pPhyNode);
nodesDestroyNode(pPhyNode->pOnConditions);
nodesDestroyList(pPhyNode->pTargets);
break;
}
case QUERY_NODE_PHYSICAL_PLAN_AGG: {
SAggPhysiNode* pPhyNode = (SAggPhysiNode*)pNode;
destroyPhysiNode((SPhysiNode*)pPhyNode);
nodesDestroyList(pPhyNode->pExprs);
nodesDestroyList(pPhyNode->pAggFuncs);
nodesDestroyList(pPhyNode->pGroupKeys);
break;
}
case QUERY_NODE_PHYSICAL_PLAN_EXCHANGE: {
SExchangePhysiNode* pPhyNode = (SExchangePhysiNode*)pNode;
destroyPhysiNode((SPhysiNode*)pPhyNode);
nodesDestroyList(pPhyNode->pSrcEndPoints);
break;
}
case QUERY_NODE_PHYSICAL_PLAN_SORT: {
SSortPhysiNode* pPhyNode = (SSortPhysiNode*)pNode;
destroyPhysiNode((SPhysiNode*)pPhyNode);
nodesDestroyNode(pPhyNode->pExprs);
nodesDestroyNode(pPhyNode->pSortKeys);
break;
}
case QUERY_NODE_PHYSICAL_PLAN_INTERVAL: {
SIntervalPhysiNode* pPhyNode = (SIntervalPhysiNode*)pNode;
destroyWinodwPhysiNode((SWinodwPhysiNode*)pPhyNode);
nodesDestroyNode(pPhyNode->pFill);
nodesDestroyNode(pPhyNode->pTspk);
break;
}
case QUERY_NODE_PHYSICAL_PLAN_SESSION_WINDOW:
destroyWinodwPhysiNode((SWinodwPhysiNode*)pNode);
break;
case QUERY_NODE_PHYSICAL_PLAN_DISPATCH:
destroyDataSinkNode((SDataSinkNode*)pNode);
break;
case QUERY_NODE_PHYSICAL_PLAN_INSERT: {
SDataInserterNode* pSink = (SDataInserterNode*)pNode;
destroyDataSinkNode((SDataSinkNode*)pSink);
taosMemoryFreeClear(pSink->pData);
break;
}
case QUERY_NODE_PHYSICAL_SUBPLAN: {
SSubplan* pSubplan = (SSubplan*)pNode;
nodesDestroyList(pSubplan->pChildren);
nodesDestroyNode(pSubplan->pNode);
nodesDestroyNode(pSubplan->pDataSink);
nodesClearList(pSubplan->pParents);
break;
}
case QUERY_NODE_PHYSICAL_PLAN: {
SQueryPlan* pPlan = (SQueryPlan*)pNode;
if (NULL != pPlan->pSubplans) {
// only need to destroy the top-level subplans, because they will recurse to all the subplans below
bool first = true;
SNode* pElement = NULL;
FOREACH(pElement, pPlan->pSubplans) {
if (first) {
first = false;
nodesDestroyNode(pElement);
} else {
nodesClearList(((SNodeListNode*)pElement)->pNodeList);
taosMemoryFreeClear(pElement);
}
}
nodesClearList(pPlan->pSubplans);
}
break;
}
default:
break;
}
taosMemoryFreeClear(*pNode);
return DEAL_RES_CONTINUE;
}
void nodesDestroyNode(SNodeptr pNode) {
if (NULL == pNode) {
return;
}
nodesRewriteNodePostOrder((SNode**)&pNode, destroyNode, NULL);
taosMemoryFreeClear(pNode);
return;
}
SNodeList* nodesMakeList() {
......
......@@ -159,6 +159,10 @@ SNode* createDropQnodeStmt(SAstCreateContext* pCxt, const SToken* pDnodeId);
SNode* createCreateTopicStmt(SAstCreateContext* pCxt, bool ignoreExists, const SToken* pTopicName, SNode* pQuery, const SToken* pSubscribeDbName);
SNode* createDropTopicStmt(SAstCreateContext* pCxt, bool ignoreNotExists, const SToken* pTopicName);
SNode* createAlterLocalStmt(SAstCreateContext* pCxt, const SToken* pConfig, const SToken* pValue);
SNode* createDefaultExplainOptions(SAstCreateContext* pCxt);
SNode* setExplainVerbose(SAstCreateContext* pCxt, SNode* pOptions, const SToken* pVal);
SNode* setExplainRatio(SAstCreateContext* pCxt, SNode* pOptions, const SToken* pVal);
SNode* createExplainStmt(SAstCreateContext* pCxt, bool analyze, SNode* pOptions, SNode* pQuery);
#ifdef __cplusplus
}
......
......@@ -339,6 +339,18 @@ cmd ::= CREATE TOPIC not_exists_opt(A) topic_name(B) AS query_expression(C).
cmd ::= CREATE TOPIC not_exists_opt(A) topic_name(B) AS db_name(C). { pCxt->pRootNode = createCreateTopicStmt(pCxt, A, &B, NULL, &C); }
cmd ::= DROP TOPIC exists_opt(A) topic_name(B). { pCxt->pRootNode = createDropTopicStmt(pCxt, A, &B); }
/************************************************ select **************************************************************/
cmd ::= EXPLAIN analyze_opt(A) explain_options(B) query_expression(C). { pCxt->pRootNode = createExplainStmt(pCxt, A, B, C); }
%type analyze_opt { bool }
%destructor analyze_opt { }
analyze_opt(A) ::= . { A = false; }
analyze_opt(A) ::= ANALYZE. { A = true; }
explain_options(A) ::= . { A = createDefaultExplainOptions(pCxt); }
explain_options(A) ::= explain_options(B) VERBOSE NK_BOOL(C). { A = setExplainVerbose(pCxt, B, &C); }
explain_options(A) ::= explain_options(B) RATIO NK_FLOAT(C). { A = setExplainRatio(pCxt, B, &C); }
/************************************************ select **************************************************************/
cmd ::= query_expression(A). { pCxt->pRootNode = A; }
......
......@@ -1316,3 +1316,30 @@ SNode* createAlterLocalStmt(SAstCreateContext* pCxt, const SToken* pConfig, cons
}
return (SNode*)pStmt;
}
SNode* createDefaultExplainOptions(SAstCreateContext* pCxt) {
SExplainOptions* pOptions = nodesMakeNode(QUERY_NODE_EXPLAIN_OPTIONS);
CHECK_OUT_OF_MEM(pOptions);
pOptions->verbose = TSDB_DEFAULT_EXPLAIN_VERBOSE;
pOptions->ratio = TSDB_DEFAULT_EXPLAIN_RATIO;
return (SNode*)pOptions;
}
SNode* setExplainVerbose(SAstCreateContext* pCxt, SNode* pOptions, const SToken* pVal) {
((SExplainOptions*)pOptions)->verbose = (0 == strncasecmp(pVal->z, "true", pVal->n));
return pOptions;
}
SNode* setExplainRatio(SAstCreateContext* pCxt, SNode* pOptions, const SToken* pVal) {
((SExplainOptions*)pOptions)->ratio = strtod(pVal->z, NULL);
return pOptions;
}
SNode* createExplainStmt(SAstCreateContext* pCxt, bool analyze, SNode* pOptions, SNode* pQuery) {
SExplainStmt* pStmt = nodesMakeNode(QUERY_NODE_EXPLAIN_STMT);
CHECK_OUT_OF_MEM(pStmt);
pStmt->analyze = analyze;
pStmt->pOptions = (SExplainOptions*)pOptions;
pStmt->pQuery = pQuery;
return (SNode*)pStmt;
}
......@@ -31,6 +31,7 @@ static SKeyword keywordTable[] = {
{"ACCOUNT", TK_ACCOUNT},
{"ALL", TK_ALL},
{"ALTER", TK_ALTER},
{"ANALYZE", TK_ANALYZE},
{"AND", TK_AND},
{"AS", TK_AS},
{"ASC", TK_ASC},
......@@ -56,6 +57,7 @@ static SKeyword keywordTable[] = {
{"DOUBLE", TK_DOUBLE},
{"DROP", TK_DROP},
{"EXISTS", TK_EXISTS},
{"EXPLAIN", TK_EXPLAIN},
{"FILE_FACTOR", TK_FILE_FACTOR},
{"FILL", TK_FILL},
{"FLOAT", TK_FLOAT},
......@@ -110,6 +112,7 @@ static SKeyword keywordTable[] = {
{"QNODES", TK_QNODES},
{"QSTARTTS", TK_QSTARTTS},
{"QUORUM", TK_QUORUM},
{"RATIO", TK_RATIO},
{"REPLICA", TK_REPLICA},
{"RETENTIONS", TK_RETENTIONS},
{"ROLLUP", TK_ROLLUP},
......@@ -144,6 +147,7 @@ static SKeyword keywordTable[] = {
{"USING", TK_USING},
{"VALUES", TK_VALUES},
{"VARCHAR", TK_VARCHAR},
{"VERBOSE", TK_VERBOSE},
{"VGROUPS", TK_VGROUPS},
{"WAL", TK_WAL},
{"WDURATION", TK_WDURATION},
......@@ -224,7 +228,6 @@ static SKeyword keywordTable[] = {
// {"DETACH", TK_DETACH},
// {"EACH", TK_EACH},
// {"END", TK_END},
// {"EXPLAIN", TK_EXPLAIN},
// {"FAIL", TK_FAIL},
// {"FOR", TK_FOR},
// {"IGNORE", TK_IGNORE},
......
......@@ -32,6 +32,7 @@ typedef struct STranslateContext {
SCmdMsgInfo* pCmdMsg;
SHashObj* pDbs;
SHashObj* pTables;
SExplainOptions* pExplainOpt;
} STranslateContext;
typedef struct SFullDatabaseName {
......@@ -228,6 +229,9 @@ static void setColumnInfoBySchema(const SRealTableNode* pTable, const SSchema* p
pCol->colType = isTag ? COLUMN_TYPE_TAG : COLUMN_TYPE_COLUMN;
pCol->node.resType.type = pColSchema->type;
pCol->node.resType.bytes = pColSchema->bytes;
if (TSDB_DATA_TYPE_TIMESTAMP == pCol->node.resType.type) {
pCol->node.resType.precision = pTable->pMeta->tableInfo.precision;
}
}
static void setColumnInfoByExpr(const STableNode* pTable, SExprNode* pExpr, SColumnNode* pCol) {
......@@ -670,6 +674,7 @@ static int32_t translateTable(STranslateContext* pCxt, SNode* pTable) {
switch (nodeType(pTable)) {
case QUERY_NODE_REAL_TABLE: {
SRealTableNode* pRealTable = (SRealTableNode*)pTable;
pRealTable->ratio = (NULL != pCxt->pExplainOpt ? pCxt->pExplainOpt->ratio : 1.0);
SName name;
code = getTableMetaImpl(pCxt,
toName(pCxt->pParseCxt->acctId, pRealTable->table.dbName, pRealTable->table.tableName, &name), &(pRealTable->pMeta));
......@@ -677,10 +682,9 @@ static int32_t translateTable(STranslateContext* pCxt, SNode* pTable) {
return generateSyntaxErrMsg(&pCxt->msgBuf, TSDB_CODE_PAR_TABLE_NOT_EXIST, pRealTable->table.tableName);
}
code = setTableVgroupList(pCxt, &name, pRealTable);
if (TSDB_CODE_SUCCESS != code) {
return code;
if (TSDB_CODE_SUCCESS == code) {
code = addNamespace(pCxt, pRealTable);
}
code = addNamespace(pCxt, pRealTable);
break;
}
case QUERY_NODE_TEMP_TABLE: {
......@@ -1801,6 +1805,13 @@ static int32_t translateAlterLocal(STranslateContext* pCxt, SAlterLocalStmt* pSt
return TSDB_CODE_SUCCESS;
}
static int32_t translateExplain(STranslateContext* pCxt, SExplainStmt* pStmt) {
if (pStmt->analyze) {
pCxt->pExplainOpt = pStmt->pOptions;
}
return translateQuery(pCxt, pStmt->pQuery);
}
static int32_t translateQuery(STranslateContext* pCxt, SNode* pNode) {
int32_t code = TSDB_CODE_SUCCESS;
switch (nodeType(pNode)) {
......@@ -1882,6 +1893,9 @@ static int32_t translateQuery(STranslateContext* pCxt, SNode* pNode) {
case QUERY_NODE_ALTER_LOCAL_STMT:
code = translateAlterLocal(pCxt, (SAlterLocalStmt*)pNode);
break;
case QUERY_NODE_EXPLAIN_STMT:
code = translateExplain(pCxt, (SExplainStmt*)pNode);
break;
default:
break;
}
......@@ -1900,7 +1914,11 @@ static int32_t translateSubquery(STranslateContext* pCxt, SNode* pNode) {
}
int32_t qExtractResultSchema(const SNode* pRoot, int32_t* numOfCols, SSchema** pSchema) {
if (NULL != pRoot && QUERY_NODE_SELECT_STMT == nodeType(pRoot)) {
if (NULL == pRoot) {
return TSDB_CODE_SUCCESS;
}
if (QUERY_NODE_SELECT_STMT == nodeType(pRoot)) {
SSelectStmt* pSelect = (SSelectStmt*) pRoot;
*numOfCols = LIST_LENGTH(pSelect->pProjectionList);
*pSchema = taosMemoryCalloc((*numOfCols), sizeof(SSchema));
......@@ -1918,6 +1936,14 @@ int32_t qExtractResultSchema(const SNode* pRoot, int32_t* numOfCols, SSchema** p
strcpy((*pSchema)[index].name, pExpr->aliasName);
index +=1;
}
} else if (QUERY_NODE_EXPLAIN_STMT == nodeType(pRoot)) {
*numOfCols = 1;
*pSchema = taosMemoryCalloc((*numOfCols), sizeof(SSchema));
if (NULL == (*pSchema)) {
return TSDB_CODE_OUT_OF_MEMORY;
}
(*pSchema)[0].type = TSDB_DATA_TYPE_BINARY;
(*pSchema)[0].bytes = TSDB_EXPLAIN_RESULT_ROW_SIZE;
}
return TSDB_CODE_SUCCESS;
......@@ -2502,6 +2528,7 @@ static int32_t rewriteQuery(STranslateContext* pCxt, SQuery* pQuery) {
static int32_t setQuery(STranslateContext* pCxt, SQuery* pQuery) {
switch (nodeType(pQuery->pRoot)) {
case QUERY_NODE_SELECT_STMT:
case QUERY_NODE_EXPLAIN_STMT:
pQuery->haveResultSet = true;
pQuery->directRpc = false;
pQuery->msgType = TDMT_VND_QUERY;
......
......@@ -58,5 +58,7 @@ void qDestroyQuery(SQuery* pQueryNode) {
taosMemoryFreeClear(pQueryNode->pCmdMsg->pMsg);
taosMemoryFreeClear(pQueryNode->pCmdMsg);
}
taosArrayDestroy(pQueryNode->pDbList);
taosArrayDestroy(pQueryNode->pTableList);
taosMemoryFreeClear(pQueryNode);
}
因为 它太大了无法显示 source diff 。你可以改为 查看blob
......@@ -647,3 +647,16 @@ TEST_F(ParserTest, dropTopic) {
bind("drop topic if exists tp1");
ASSERT_TRUE(run());
}
TEST_F(ParserTest, explain) {
setDatabase("root", "test");
bind("explain SELECT * FROM t1");
ASSERT_TRUE(run());
bind("explain analyze SELECT * FROM t1");
ASSERT_TRUE(run());
bind("explain analyze verbose true ratio 0.01 SELECT * FROM t1");
ASSERT_TRUE(run());
}
......@@ -197,6 +197,7 @@ static int32_t createScanLogicNode(SLogicPlanContext* pCxt, SSelectStmt* pSelect
strcpy(pScan->tableName.dbname, pRealTable->table.dbName);
strcpy(pScan->tableName.tname, pRealTable->table.tableName);
pScan->showRewrite = pCxt->pPlanCxt->showRewrite;
pScan->ratio = pRealTable->ratio;
// set columns to scan
SNodeList* pCols = NULL;
......@@ -692,7 +693,7 @@ static int32_t createVnodeModifLogicNode(SLogicPlanContext* pCxt, SVnodeModifOpS
if (NULL == pModif) {
return TSDB_CODE_OUT_OF_MEMORY;
}
pModif->pDataBlocks = pStmt->pDataBlocks;
TSWAP(pModif->pDataBlocks, pStmt->pDataBlocks, SArray*);
pModif->msgType = getMsgType(pStmt->sqlNodeType);
*pLogicNode = (SLogicNode*)pModif;
return TSDB_CODE_SUCCESS;
......@@ -704,6 +705,8 @@ static int32_t createQueryLogicNode(SLogicPlanContext* pCxt, SNode* pStmt, SLogi
return createSelectLogicNode(pCxt, (SSelectStmt*)pStmt, pLogicNode);
case QUERY_NODE_VNODE_MODIF_STMT:
return createVnodeModifLogicNode(pCxt, (SVnodeModifOpStmt*)pStmt, pLogicNode);
case QUERY_NODE_EXPLAIN_STMT:
return createQueryLogicNode(pCxt, ((SExplainStmt*)pStmt)->pQuery, pLogicNode);
default:
break;
}
......
......@@ -398,6 +398,7 @@ static int32_t createTableScanPhysiNode(SPhysiPlanContext* pCxt, SSubplan* pSubp
pTableScan->scanFlag = pScanLogicNode->scanFlag;
pTableScan->scanRange = pScanLogicNode->scanRange;
pTableScan->ratio = pScanLogicNode->ratio;
vgroupInfoToNodeAddr(pScanLogicNode->pVgroupList->vgroups, &pSubplan->execNode);
taosArrayPush(pCxt->pExecNodeList, &pSubplan->execNode);
pSubplan->execNodeStat.tableNum = pScanLogicNode->pVgroupList->vgroups[0].numOfTable;
......@@ -780,6 +781,7 @@ static int32_t createIntervalPhysiNode(SPhysiPlanContext* pCxt, SNodeList* pChil
pInterval->sliding = pWindowLogicNode->sliding;
pInterval->intervalUnit = pWindowLogicNode->intervalUnit;
pInterval->slidingUnit = pWindowLogicNode->slidingUnit;
pInterval->precision = ((SColumnNode*)pWindowLogicNode->pTspk)->node.resType.precision;
pInterval->pFill = nodesCloneNode(pWindowLogicNode->pFill);
if (NULL != pWindowLogicNode->pFill && NULL == pInterval->pFill) {
......@@ -1080,6 +1082,30 @@ static int32_t doCreatePhysiPlan(SPhysiPlanContext* pCxt, SQueryLogicPlan* pLogi
return code;
}
static void destoryLocationHash(void* p) {
SHashObj* pHash = *(SHashObj**)p;
SSlotIndex* pIndex = taosHashIterate(pHash, NULL);
while (NULL != pIndex) {
taosArrayDestroy(pIndex->pSlotIdsInfo);
pIndex = taosHashIterate(pHash, pIndex);
}
taosHashCleanup(pHash);
}
static void destoryPhysiPlanContext(SPhysiPlanContext* pCxt) {
taosArrayDestroyEx(pCxt->pLocationHelper, destoryLocationHash);
}
static void setExplainInfo(SPlanContext* pCxt, SQueryPlan* pPlan) {
if (QUERY_NODE_EXPLAIN_STMT == nodeType(pCxt->pAstRoot)) {
SExplainStmt* pStmt = (SExplainStmt*)pCxt->pAstRoot;
pPlan->explainInfo.mode = pStmt->analyze ? EXPLAIN_MODE_ANALYZE : EXPLAIN_MODE_STATIC;
pPlan->explainInfo.verbose = pStmt->pOptions->verbose;
} else {
pPlan->explainInfo.mode = EXPLAIN_MODE_DISABLE;
}
}
int32_t createPhysiPlan(SPlanContext* pCxt, SQueryLogicPlan* pLogicPlan, SQueryPlan** pPlan, SArray* pExecNodeList) {
SPhysiPlanContext cxt = {
.pPlanCxt = pCxt,
......@@ -1091,5 +1117,12 @@ int32_t createPhysiPlan(SPlanContext* pCxt, SQueryLogicPlan* pLogicPlan, SQueryP
if (NULL == cxt.pLocationHelper) {
return TSDB_CODE_OUT_OF_MEMORY;
}
return doCreatePhysiPlan(&cxt, pLogicPlan, pPlan);
int32_t code = doCreatePhysiPlan(&cxt, pLogicPlan, pPlan);
if (TSDB_CODE_SUCCESS == code) {
setExplainInfo(pCxt, *pPlan);
}
destoryPhysiPlanContext(&cxt);
return code;
}
......@@ -167,6 +167,8 @@ static int32_t doScaleOut(SScaleOutContext* pCxt, SLogicSubplan* pSubplan, int32
if (TSDB_CODE_SUCCESS != code) {
nodesDestroyList(pCurrentGroup);
} else {
nodesClearList(pCurrentGroup);
}
return code;
......
......@@ -140,6 +140,7 @@ static int32_t stsSplit(SSplitContext* pCxt) {
code = stsCreateExchangeNode(pCxt, pInfo->pSubplan, pInfo->pScan);
}
++(pCxt->groupId);
taosMemoryFreeClear(pCxt->pInfo);
return code;
}
......
......@@ -248,6 +248,11 @@ TEST_F(PlannerTest, showTables) {
bind("show tables");
ASSERT_TRUE(run());
setDatabase("root", "information_schema");
bind("show tables");
ASSERT_TRUE(run());
}
TEST_F(PlannerTest, showStables) {
......@@ -277,3 +282,16 @@ TEST_F(PlannerTest, createSmaIndex) {
bind("create sma index index1 on t1 function(max(c1), min(c3 + 10), sum(c4)) INTERVAL(10s)");
ASSERT_TRUE(run());
}
TEST_F(PlannerTest, explain) {
setDatabase("root", "test");
bind("explain SELECT * FROM t1");
ASSERT_TRUE(run());
bind("explain analyze SELECT * FROM t1");
ASSERT_TRUE(run());
bind("explain analyze verbose true ratio 0.01 SELECT * FROM t1");
ASSERT_TRUE(run());
}
......@@ -959,7 +959,7 @@ int32_t qwProcessQuery(QW_FPARAMS_DEF, SQWMsg *qwMsg, int8_t taskType) {
QW_ERR_JRET(code);
}
code = qCreateExecTask(qwMsg->node, mgmt->nodeId, tId, plan, &pTaskInfo, &sinkHandle);
code = qCreateExecTask(qwMsg->node, mgmt->nodeId, tId, plan, &pTaskInfo, &sinkHandle, OPTR_EXEC_MODEL_BATCH);
if (code) {
QW_TASK_ELOG("qCreateExecTask failed, code:%x - %s", code, tstrerror(code));
QW_ERR_JRET(code);
......
......@@ -288,7 +288,7 @@ _return:
SCL_RET(code);
}
int32_t sclExecFuncion(SFunctionNode *node, SScalarCtx *ctx, SScalarParam *output) {
int32_t sclExecFunction(SFunctionNode *node, SScalarCtx *ctx, SScalarParam *output) {
if (NULL == node->pParameterList || node->pParameterList->length <= 0) {
sclError("invalid function parameter list, list:%p, paramNum:%d", node->pParameterList, node->pParameterList ? node->pParameterList->length : 0);
SCL_ERR_RET(TSDB_CODE_QRY_INVALID_INPUT);
......@@ -420,7 +420,7 @@ EDealRes sclRewriteFunction(SNode** pNode, SScalarCtx *ctx) {
SFunctionNode *node = (SFunctionNode *)*pNode;
SScalarParam output = {0};
ctx->code = sclExecFuncion(node, ctx, &output);
ctx->code = sclExecFunction(node, ctx, &output);
if (ctx->code) {
return DEAL_RES_ERROR;
}
......@@ -547,7 +547,7 @@ EDealRes sclWalkFunction(SNode* pNode, SScalarCtx *ctx) {
SFunctionNode *node = (SFunctionNode *)pNode;
SScalarParam output = {0};
ctx->code = sclExecFuncion(node, ctx, &output);
ctx->code = sclExecFunction(node, ctx, &output);
if (ctx->code) {
return DEAL_RES_ERROR;
}
......@@ -667,7 +667,7 @@ int32_t scalarCalculateConstants(SNode *pNode, SNode **pRes) {
int32_t code = 0;
SScalarCtx ctx = {0};
ctx.pRes = taosHashInit(SCL_DEFAULT_OP_NUM, taosGetDefaultHashFunction(TSDB_DATA_TYPE_BINARY), false, HASH_NO_LOCK);
ctx.pRes = taosHashInit(SCL_DEFAULT_OP_NUM, taosGetDefaultHashFunction(TSDB_DATA_TYPE_BIGINT), false, HASH_NO_LOCK);
if (NULL == ctx.pRes) {
sclError("taosHashInit failed, num:%d", SCL_DEFAULT_OP_NUM);
SCL_ERR_RET(TSDB_CODE_QRY_OUT_OF_MEMORY);
......@@ -689,7 +689,7 @@ int32_t scalarCalculate(SNode *pNode, SArray *pBlockList, SScalarParam *pDst) {
int32_t code = 0;
SScalarCtx ctx = {.code = 0, .pBlockList = pBlockList};
// TODO: OPT performance
ctx.pRes = taosHashInit(SCL_DEFAULT_OP_NUM, taosGetDefaultHashFunction(TSDB_DATA_TYPE_BINARY), false, HASH_NO_LOCK);
if (NULL == ctx.pRes) {
sclError("taosHashInit failed, num:%d", SCL_DEFAULT_OP_NUM);
......@@ -716,6 +716,3 @@ _return:
sclFreeRes(ctx.pRes);
return code;
}
......@@ -377,3 +377,34 @@ static void reverseCopy(char* dest, const char* src, int16_t type, int32_t numOf
}
}
bool getTimePseudoFuncEnv(SFunctionNode* UNUSED_PARAM(pFunc), SFuncExecEnv* pEnv) {
pEnv->calcMemSize = sizeof(int64_t);
return true;
}
int32_t qStartTsFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput) {
ASSERT(inputNum == 1);
colDataAppendInt64(pOutput->columnData, pOutput->numOfRows, (int64_t *)colDataGetData(pInput->columnData, 0));
}
int32_t qEndTsFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput) {
ASSERT(inputNum == 1);
colDataAppendInt64(pOutput->columnData, pOutput->numOfRows, (int64_t *)colDataGetData(pInput->columnData, 1));
}
int32_t winDurFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput) {
ASSERT(inputNum == 1);
colDataAppendInt64(pOutput->columnData, pOutput->numOfRows, (int64_t *)colDataGetData(pInput->columnData, 2));
}
int32_t winStartTsFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput) {
ASSERT(inputNum == 1);
colDataAppendInt64(pOutput->columnData, pOutput->numOfRows, (int64_t*) colDataGetData(pInput->columnData, 3));
return TSDB_CODE_SUCCESS;
}
int32_t winEndTsFunction(SScalarParam *pInput, int32_t inputNum, SScalarParam *pOutput) {
ASSERT(inputNum == 1);
colDataAppendInt64(pOutput->columnData, pOutput->numOfRows, (int64_t*) colDataGetData(pInput->columnData, 4));
return TSDB_CODE_SUCCESS;
}
\ No newline at end of file
......@@ -9,9 +9,8 @@ target_sources(tdb
"src/db/tdbDb.c"
"src/db/tdbEnv.c"
"src/db/tdbTxn.c"
"src/db/tdbPage.c"
"src/db/tdbOs.c"
"src/page/tdbPage.c"
"src/page/tdbPageL.c"
)
target_include_directories(
......
......@@ -18,19 +18,12 @@
#define TDB_BTREE_ROOT 0x1
#define TDB_BTREE_LEAF 0x2
#define TDB_BTREE_PAGE_IS_ROOT(flags) TDB_FLAG_HAS(flags, TDB_BTREE_ROOT)
#define TDB_BTREE_PAGE_IS_LEAF(flags) TDB_FLAG_HAS(flags, TDB_BTREE_LEAF)
#define TDB_BTREE_ASSERT_FLAG(flags) \
ASSERT(TDB_FLAG_IS(flags, TDB_BTREE_ROOT) || TDB_FLAG_IS(flags, TDB_BTREE_LEAF) || \
TDB_FLAG_IS(flags, TDB_BTREE_ROOT | TDB_BTREE_LEAF) || TDB_FLAG_IS(flags, 0))
struct SBTree {
SPgno root;
int keyLen;
int valLen;
SPager *pPager;
FKeyComparator kcmpr;
u8 fanout;
int pageSize;
int maxLocal;
int minLocal;
......@@ -41,8 +34,13 @@ struct SBTree {
#define TDB_BTREE_PAGE_COMMON_HDR u8 flags;
#define TDB_BTREE_PAGE_GET_FLAGS(PAGE) (PAGE)->pData[0]
#define TDB_BTREE_PAGE_GET_FLAGS(PAGE) (PAGE)->pData[0]
#define TDB_BTREE_PAGE_SET_FLAGS(PAGE, flags) ((PAGE)->pData[0] = (flags))
#define TDB_BTREE_PAGE_IS_ROOT(PAGE) (TDB_BTREE_PAGE_GET_FLAGS(PAGE) & TDB_BTREE_ROOT)
#define TDB_BTREE_PAGE_IS_LEAF(PAGE) (TDB_BTREE_PAGE_GET_FLAGS(PAGE) & TDB_BTREE_LEAF)
#define TDB_BTREE_ASSERT_FLAG(flags) \
ASSERT(TDB_FLAG_IS(flags, TDB_BTREE_ROOT) || TDB_FLAG_IS(flags, TDB_BTREE_LEAF) || \
TDB_FLAG_IS(flags, TDB_BTREE_ROOT | TDB_BTREE_LEAF) || TDB_FLAG_IS(flags, 0))
typedef struct __attribute__((__packed__)) {
TDB_BTREE_PAGE_COMMON_HDR
......@@ -59,15 +57,15 @@ typedef struct {
} SBtreeInitPageArg;
typedef struct {
int kLen;
u8 *pKey;
int vLen;
u8 *pVal;
SPgno pgno;
u8 *pTmpSpace;
int kLen;
const u8 *pKey;
int vLen;
const u8 *pVal;
SPgno pgno;
u8 *pBuf;
} SCellDecoder;
static int tdbBtCursorMoveTo(SBTC *pBtc, const void *pKey, int kLen, int *pCRst);
static int tdbBtcMoveTo(SBTC *pBtc, const void *pKey, int kLen, int *pCRst);
static int tdbDefaultKeyCmprFn(const void *pKey1, int keyLen1, const void *pKey2, int keyLen2);
static int tdbBtreeOpenImpl(SBTree *pBt);
static int tdbBtreeZeroPage(SPage *pPage, void *arg);
......@@ -78,13 +76,15 @@ static int tdbBtreeDecodeCell(SPage *pPage, const SCell *pCell, SCellDecoder *pD
static int tdbBtreeBalance(SBTC *pBtc);
static int tdbBtreeCellSize(const SPage *pPage, SCell *pCell);
static int tdbBtcMoveToNext(SBTC *pBtc);
static int tdbBtcMoveDownward(SBTC *pBtc, SPgno pgno);
static int tdbBtcMoveDownward(SBTC *pBtc);
static int tdbBtcMoveUpward(SBTC *pBtc);
int tdbBtreeOpen(int keyLen, int valLen, SPager *pPager, FKeyComparator kcmpr, SBTree **ppBt) {
SBTree *pBt;
int ret;
ASSERT(keyLen != 0);
*ppBt = NULL;
pBt = (SBTree *)tdbOsCalloc(1, sizeof(*pBt));
......@@ -93,28 +93,21 @@ int tdbBtreeOpen(int keyLen, int valLen, SPager *pPager, FKeyComparator kcmpr, S
}
// pBt->keyLen
pBt->keyLen = keyLen;
pBt->keyLen = keyLen < 0 ? TDB_VARIANT_LEN : keyLen;
// pBt->valLen
pBt->valLen = valLen;
pBt->valLen = valLen < 0 ? TDB_VARIANT_LEN : valLen;
// pBt->pPager
pBt->pPager = pPager;
// pBt->kcmpr
pBt->kcmpr = kcmpr ? kcmpr : tdbDefaultKeyCmprFn;
// pBt->fanout
if (keyLen == TDB_VARIANT_LEN) {
pBt->fanout = TDB_DEFAULT_FANOUT;
} else {
ASSERT(0);
// TODO: pBt->fanout = 0;
}
// pBt->pageSize
pBt->pageSize = tdbPagerGetPageSize(pPager);
// pBt->maxLocal
pBt->maxLocal = (pBt->pageSize - 14) / pBt->fanout;
pBt->maxLocal = tdbPageCapacity(pBt->pageSize, sizeof(SIntHdr)) / 4;
// pBt->minLocal: Should not be allowed smaller than 15, which is [nPayload][nKey][nData]
pBt->minLocal = (pBt->pageSize - 14) / pBt->fanout / 2;
pBt->minLocal = pBt->maxLocal / 2;
// pBt->maxLeaf
pBt->maxLeaf = pBt->pageSize - 14;
pBt->maxLeaf = tdbPageCapacity(pBt->pageSize, sizeof(SLeafHdr));
// pBt->minLeaf
pBt->minLeaf = pBt->minLocal;
......@@ -143,7 +136,7 @@ int tdbBtCursorInsert(SBTC *pBtc, const void *pKey, int kLen, const void *pVal,
int cret;
SBTree *pBt;
ret = tdbBtCursorMoveTo(pBtc, pKey, kLen, &cret);
ret = tdbBtcMoveTo(pBtc, pKey, kLen, &cret);
if (ret < 0) {
// TODO: handle error
return -1;
......@@ -206,7 +199,7 @@ int tdbBtreeGet(SBTree *pBt, const void *pKey, int kLen, void **ppVal, int *vLen
tdbBtcOpen(&btc, pBt);
tdbBtCursorMoveTo(&btc, pKey, kLen, &cret);
tdbBtcMoveTo(&btc, pKey, kLen, &cret);
if (cret) {
return cret;
......@@ -226,102 +219,39 @@ int tdbBtreeGet(SBTree *pBt, const void *pKey, int kLen, void **ppVal, int *vLen
return 0;
}
static int tdbBtCursorMoveTo(SBTC *pBtc, const void *pKey, int kLen, int *pCRst) {
int ret;
SBTree *pBt;
SPager *pPager;
pBt = pBtc->pBt;
pPager = pBt->pPager;
if (pBtc->iPage < 0) {
ASSERT(pBtc->iPage == -1);
ASSERT(pBtc->idx == -1);
// Move from the root
ret = tdbPagerFetchPage(pPager, pBt->root, &(pBtc->pPage), tdbBtreeInitPage, pBt);
if (ret < 0) {
ASSERT(0);
return -1;
}
pBtc->iPage = 0;
if (TDB_PAGE_TOTAL_CELLS(pBtc->pPage) == 0) {
// Current page is empty
// ASSERT(TDB_FLAG_IS(TDB_PAGE_FLAGS(pBtc->pPage), TDB_BTREE_ROOT | TDB_BTREE_LEAF));
return 0;
}
for (;;) {
int lidx, ridx, midx, c, nCells;
SCell *pCell;
SPage *pPage;
SCellDecoder cd = {0};
pPage = pBtc->pPage;
nCells = TDB_PAGE_TOTAL_CELLS(pPage);
lidx = 0;
ridx = nCells - 1;
int tdbBtreePGet(SBTree *pBt, const void *pKey, int kLen, void **ppKey, int *pkLen, void **ppVal, int *vLen) {
SBTC btc;
SCell *pCell;
int cret;
void *pTKey;
void *pTVal;
SCellDecoder cd;
ASSERT(nCells > 0);
tdbBtcOpen(&btc, pBt);
for (;;) {
if (lidx > ridx) break;
tdbBtcMoveTo(&btc, pKey, kLen, &cret);
if (cret) {
return cret;
}
midx = (lidx + ridx) >> 1;
pCell = tdbPageGetCell(btc.pPage, btc.idx);
tdbBtreeDecodeCell(btc.pPage, pCell, &cd);
pCell = tdbPageGetCell(pPage, midx);
ret = tdbBtreeDecodeCell(pPage, pCell, &cd);
if (ret < 0) {
// TODO: handle error
ASSERT(0);
return -1;
}
pTKey = TDB_REALLOC(*ppKey, cd.kLen);
pTVal = TDB_REALLOC(*ppVal, cd.vLen);
// Compare the key values
c = pBt->kcmpr(pKey, kLen, cd.pKey, cd.kLen);
if (c < 0) {
/* input-key < cell-key */
ridx = midx - 1;
} else if (c > 0) {
/* input-key > cell-key */
lidx = midx + 1;
} else {
/* input-key == cell-key */
break;
}
}
if (pTKey == NULL || pTVal == NULL) {
TDB_FREE(pTKey);
TDB_FREE(pTVal);
}
// Move downward or break
u8 flags = TDB_BTREE_PAGE_GET_FLAGS(pPage);
u8 leaf = TDB_BTREE_PAGE_IS_LEAF(flags);
if (leaf) {
pBtc->idx = midx;
*pCRst = c;
break;
} else {
if (c <= 0) {
pBtc->idx = midx;
tdbBtcMoveDownward(pBtc, cd.pgno);
} else {
pBtc->idx = midx + 1;
if (midx == nCells - 1) {
/* Move to right-most child */
tdbBtcMoveDownward(pBtc, ((SIntHdr *)pBtc->pPage->pData)->pgno);
} else {
pCell = tdbPageGetCell(pPage, pBtc->idx);
tdbBtreeDecodeCell(pPage, pCell, &cd);
tdbBtcMoveDownward(pBtc, cd.pgno);
}
}
}
}
*ppKey = pTKey;
*ppVal = pTVal;
*pkLen = cd.kLen;
*vLen = cd.vLen;
} else {
// TODO: Move the cursor from a some position instead of a clear state
ASSERT(0);
}
memcpy(*ppKey, cd.pKey, cd.kLen);
memcpy(*ppVal, cd.pVal, cd.vLen);
return 0;
}
......@@ -385,7 +315,7 @@ static int tdbBtreeInitPage(SPage *pPage, void *arg) {
pBt = (SBTree *)arg;
flags = TDB_BTREE_PAGE_GET_FLAGS(pPage);
isLeaf = TDB_BTREE_PAGE_IS_LEAF(flags);
isLeaf = TDB_BTREE_PAGE_IS_LEAF(pPage);
ASSERT(flags == TDB_BTREE_PAGE_GET_FLAGS(pPage));
......@@ -411,15 +341,15 @@ static int tdbBtreeInitPage(SPage *pPage, void *arg) {
static int tdbBtreeZeroPage(SPage *pPage, void *arg) {
u8 flags;
SBTree *pBt;
u8 isLeaf;
u8 leaf;
flags = ((SBtreeInitPageArg *)arg)->flags;
pBt = ((SBtreeInitPageArg *)arg)->pBt;
isLeaf = TDB_BTREE_PAGE_IS_LEAF(flags);
leaf = flags & TDB_BTREE_LEAF;
tdbPageZero(pPage, isLeaf ? sizeof(SLeafHdr) : sizeof(SIntHdr), tdbBtreeCellSize);
tdbPageZero(pPage, leaf ? sizeof(SLeafHdr) : sizeof(SIntHdr), tdbBtreeCellSize);
if (isLeaf) {
if (leaf) {
SLeafHdr *pLeafHdr = (SLeafHdr *)(pPage->pData);
pLeafHdr->flags = flags;
......@@ -464,7 +394,7 @@ static int tdbBtreeBalanceDeeper(SBTree *pBt, SPage *pRoot, SPage **ppChild) {
pPager = pRoot->pPager;
flags = TDB_BTREE_PAGE_GET_FLAGS(pRoot);
leaf = TDB_BTREE_PAGE_IS_LEAF(flags);
leaf = TDB_BTREE_PAGE_IS_LEAF(pRoot);
// Allocate a new child page
zArg.flags = TDB_FLAG_REMOVE(flags, TDB_BTREE_ROOT);
......@@ -530,7 +460,7 @@ static int tdbBtreeBalanceNonRoot(SBTree *pBt, SPage *pParent, int idx) {
SPgno pgno;
if (sIdx + i == nCells) {
ASSERT(!TDB_BTREE_PAGE_IS_LEAF(TDB_BTREE_PAGE_GET_FLAGS(pParent)));
ASSERT(!TDB_BTREE_PAGE_IS_LEAF(pParent));
pgno = ((SIntHdr *)(pParent->pData))->pgno;
} else {
pCell = tdbPageGetCell(pParent, sIdx + i);
......@@ -544,7 +474,7 @@ static int tdbBtreeBalanceNonRoot(SBTree *pBt, SPage *pParent, int idx) {
}
}
// copy the parent key out if child pages are not leaf page
childNotLeaf = !TDB_BTREE_PAGE_IS_LEAF(TDB_BTREE_PAGE_GET_FLAGS(pOlds[0]));
childNotLeaf = !TDB_BTREE_PAGE_IS_LEAF(pOlds[0]);
if (childNotLeaf) {
for (int i = 0; i < nOlds; i++) {
if (sIdx + i < TDB_PAGE_TOTAL_CELLS(pParent)) {
......@@ -818,9 +748,8 @@ static int tdbBtreeBalance(SBTC *pBtc) {
for (;;) {
iPage = pBtc->iPage;
pPage = pBtc->pPage;
flags = TDB_BTREE_PAGE_GET_FLAGS(pPage);
leaf = TDB_BTREE_PAGE_IS_LEAF(flags);
root = TDB_BTREE_PAGE_IS_ROOT(flags);
leaf = TDB_BTREE_PAGE_IS_LEAF(pPage);
root = TDB_BTREE_PAGE_IS_ROOT(pPage);
// when the page is not overflow and not too empty, the balance work
// is finished. Just break out the balance loop.
......@@ -861,23 +790,17 @@ static int tdbBtreeBalance(SBTC *pBtc) {
}
#endif
#ifndef TDB_BTREE_CELL // =========================================================
static int tdbBtreeEncodePayload(SPage *pPage, u8 *pPayload, const void *pKey, int kLen, const void *pVal, int vLen,
int *szPayload) {
// TDB_BTREE_CELL =====================
static int tdbBtreeEncodePayload(SPage *pPage, SCell *pCell, int nHeader, const void *pKey, int kLen, const void *pVal,
int vLen, int *szPayload) {
int nPayload;
ASSERT(pKey != NULL);
if (pVal == NULL) {
vLen = 0;
}
nPayload = kLen + vLen;
if (nPayload <= pPage->maxLocal) {
// General case without overflow
memcpy(pPayload, pKey, kLen);
if (nPayload + nHeader <= pPage->maxLocal) {
// no overflow page is needed
memcpy(pCell + nHeader, pKey, kLen);
if (pVal) {
memcpy(pPayload + kLen, pVal, vLen);
memcpy(pCell + nHeader + kLen, pVal, vLen);
}
*szPayload = nPayload;
......@@ -892,10 +815,8 @@ static int tdbBtreeEncodePayload(SPage *pPage, u8 *pPayload, const void *pKey, i
return 0;
}
// TODO: allow vLen = 0
static int tdbBtreeEncodeCell(SPage *pPage, const void *pKey, int kLen, const void *pVal, int vLen, SCell *pCell,
int *szCell) {
u8 flags;
u8 leaf;
int nHeader;
int nPayload;
......@@ -903,11 +824,11 @@ static int tdbBtreeEncodeCell(SPage *pPage, const void *pKey, int kLen, const vo
ASSERT(pPage->kLen == TDB_VARIANT_LEN || pPage->kLen == kLen);
ASSERT(pPage->vLen == TDB_VARIANT_LEN || pPage->vLen == vLen);
ASSERT(pKey != NULL && kLen > 0);
nPayload = 0;
nHeader = 0;
flags = TDB_BTREE_PAGE_GET_FLAGS(pPage);
leaf = TDB_BTREE_PAGE_IS_LEAF(flags);
leaf = TDB_BTREE_PAGE_IS_LEAF(pPage);
// 1. Encode Header part
/* Encode SPgno if interior page */
......@@ -929,38 +850,42 @@ static int tdbBtreeEncodeCell(SPage *pPage, const void *pKey, int kLen, const vo
}
// 2. Encode payload part
if (leaf) {
ret = tdbBtreeEncodePayload(pPage, pCell + nHeader, pKey, kLen, pVal, vLen, &nPayload);
} else {
ret = tdbBtreeEncodePayload(pPage, pCell + nHeader, pKey, kLen, NULL, 0, &nPayload);
if ((!leaf) || pPage->vLen == 0) {
pVal = NULL;
vLen = 0;
}
ret = tdbBtreeEncodePayload(pPage, pCell, nHeader, pKey, kLen, pVal, vLen, &nPayload);
if (ret < 0) {
// TODO: handle error
return -1;
// TODO
ASSERT(0);
return 0;
}
*szCell = nHeader + nPayload;
return 0;
}
static int tdbBtreeDecodePayload(SPage *pPage, const u8 *pPayload, SCellDecoder *pDecoder) {
static int tdbBtreeDecodePayload(SPage *pPage, const SCell *pCell, int nHeader, SCellDecoder *pDecoder) {
int nPayload;
ASSERT(pDecoder->pKey == NULL);
if (pDecoder->pVal) {
nPayload = pDecoder->kLen + pDecoder->vLen;
} else {
ASSERT(!TDB_BTREE_PAGE_IS_LEAF(pPage));
nPayload = pDecoder->kLen;
} else {
nPayload = pDecoder->kLen + pDecoder->vLen;
}
if (nPayload <= pPage->maxLocal) {
// General case without overflow
pDecoder->pKey = (void *)pPayload;
if (!pDecoder->pVal) {
pDecoder->pVal = (void *)(pPayload + pDecoder->kLen);
if (nHeader + nPayload <= pPage->maxLocal) {
// no over flow case
pDecoder->pKey = pCell + nHeader;
if (pDecoder->pVal == NULL && pDecoder->vLen > 0) {
pDecoder->pVal = pCell + nHeader + pDecoder->kLen;
}
} else {
return 0;
}
{
// TODO: handle overflow case
ASSERT(0);
}
......@@ -969,14 +894,12 @@ static int tdbBtreeDecodePayload(SPage *pPage, const u8 *pPayload, SCellDecoder
}
static int tdbBtreeDecodeCell(SPage *pPage, const SCell *pCell, SCellDecoder *pDecoder) {
u8 flags;
u8 leaf;
int nHeader;
int ret;
nHeader = 0;
flags = TDB_BTREE_PAGE_GET_FLAGS(pPage);
leaf = TDB_BTREE_PAGE_IS_LEAF(flags);
leaf = TDB_BTREE_PAGE_IS_LEAF(pPage);
// Clear the state of decoder
pDecoder->kLen = -1;
......@@ -1001,13 +924,14 @@ static int tdbBtreeDecodeCell(SPage *pPage, const SCell *pCell, SCellDecoder *pD
}
if (pPage->vLen == TDB_VARIANT_LEN) {
ASSERT(leaf);
nHeader += tdbGetVarInt(pCell + nHeader, &(pDecoder->vLen));
} else {
pDecoder->vLen = pPage->vLen;
}
// 2. Decode payload part
ret = tdbBtreeDecodePayload(pPage, pCell + nHeader, pDecoder);
ret = tdbBtreeDecodePayload(pPage, pCell, nHeader, pDecoder);
if (ret < 0) {
return -1;
}
......@@ -1016,16 +940,14 @@ static int tdbBtreeDecodeCell(SPage *pPage, const SCell *pCell, SCellDecoder *pD
}
static int tdbBtreeCellSize(const SPage *pPage, SCell *pCell) {
u8 flags;
u8 isLeaf;
u8 leaf;
int szCell;
int kLen = 0, vLen = 0;
flags = TDB_BTREE_PAGE_GET_FLAGS(pPage);
isLeaf = TDB_BTREE_PAGE_IS_LEAF(flags);
leaf = TDB_BTREE_PAGE_IS_LEAF(pPage);
szCell = 0;
if (!isLeaf) {
if (!leaf) {
szCell += sizeof(SPgno);
}
......@@ -1035,21 +957,28 @@ static int tdbBtreeCellSize(const SPage *pPage, SCell *pCell) {
kLen = pPage->kLen;
}
if (isLeaf) {
if (pPage->vLen == TDB_VARIANT_LEN) {
szCell += tdbGetVarInt(pCell + szCell, &vLen);
} else {
vLen = pPage->vLen;
}
if (pPage->vLen == TDB_VARIANT_LEN) {
ASSERT(leaf);
szCell += tdbGetVarInt(pCell + szCell, &vLen);
} else if (leaf) {
vLen = pPage->vLen;
}
szCell = szCell + kLen + vLen;
return szCell;
}
if (szCell <= pPage->maxLocal) {
return szCell;
}
#endif
{
// TODO
ASSERT(0);
return 0;
}
}
// TDB_BTREE_CELL
// TDB_BTREE_CURSOR =====================
int tdbBtcOpen(SBTC *pBtc, SBTree *pBt) {
pBtc->pBt = pBt;
pBtc->iPage = -1;
......@@ -1063,7 +992,6 @@ int tdbBtcMoveToFirst(SBTC *pBtc) {
int ret;
SBTree *pBt;
SPager *pPager;
u8 flags;
SCell *pCell;
SPgno pgno;
......@@ -1078,23 +1006,43 @@ int tdbBtcMoveToFirst(SBTC *pBtc) {
return -1;
}
ASSERT(TDB_BTREE_PAGE_IS_ROOT(pBtc->pPage));
pBtc->iPage = 0;
pBtc->idx = 0;
if (TDB_PAGE_TOTAL_CELLS(pBtc->pPage) > 0) {
pBtc->idx = 0;
} else {
// no any data, point to an invalid position
ASSERT(TDB_BTREE_PAGE_IS_LEAF(pBtc->pPage));
pBtc->idx = -1;
return 0;
}
} else {
// move from a position
ASSERT(0);
int iPage = 0;
for (; iPage < pBtc->iPage; iPage++) {
ASSERT(pBtc->idxStack[iPage] >= 0);
if (pBtc->idxStack[iPage]) break;
}
// move upward
for (;;) {
if (pBtc->iPage == 0) {
pBtc->idx = 0;
break;
}
if (pBtc->iPage < iPage) break;
tdbBtcMoveUpward(pBtc);
}
}
// move downward
for (;;) {
flags = TDB_BTREE_PAGE_GET_FLAGS(pBtc->pPage);
if (TDB_BTREE_PAGE_IS_LEAF(flags)) break;
if (TDB_BTREE_PAGE_IS_LEAF(pBtc->pPage)) break;
pCell = tdbPageGetCell(pBtc->pPage, 0);
pgno = *(SPgno *)pCell;
ret = tdbBtcMoveDownward(pBtc, pgno);
ret = tdbBtcMoveDownward(pBtc);
if (ret < 0) {
ASSERT(0);
return -1;
......@@ -1110,7 +1058,6 @@ int tdbBtcMoveToLast(SBTC *pBtc) {
int ret;
SBTree *pBt;
SPager *pPager;
u8 flags;
SPgno pgno;
pBt = pBtc->pBt;
......@@ -1132,18 +1079,15 @@ int tdbBtcMoveToLast(SBTC *pBtc) {
// move downward
for (;;) {
flags = TDB_BTREE_PAGE_GET_FLAGS(pBtc->pPage);
if (TDB_BTREE_PAGE_IS_LEAF(flags)) {
if (TDB_BTREE_PAGE_IS_LEAF(pBtc->pPage)) {
// TODO: handle empty case
ASSERT(TDB_PAGE_TOTAL_CELLS(pBtc->pPage) > 0);
pBtc->idx = TDB_PAGE_TOTAL_CELLS(pBtc->pPage) - 1;
break;
} else {
pBtc->idx = TDB_PAGE_TOTAL_CELLS(pBtc->pPage);
pgno = ((SIntHdr *)pBtc->pPage->pData)->pgno;
ret = tdbBtcMoveDownward(pBtc, pgno);
ret = tdbBtcMoveDownward(pBtc);
if (ret < 0) {
ASSERT(0);
return -1;
......@@ -1154,11 +1098,6 @@ int tdbBtcMoveToLast(SBTC *pBtc) {
return 0;
}
int tdbBtcMoveTo(SBTC *pBtc, const void *pKey, int kLen) {
// TODO
return 0;
}
int tdbBtreeNext(SBTC *pBtc, void **ppKey, int *kLen, void **ppVal, int *vLen) {
SCell *pCell;
SCellDecoder cd;
......@@ -1201,11 +1140,9 @@ int tdbBtreeNext(SBTC *pBtc, void **ppKey, int *kLen, void **ppVal, int *vLen) {
static int tdbBtcMoveToNext(SBTC *pBtc) {
int nCells;
SPgno pgno;
SCell *pCell;
u8 flags;
ASSERT(TDB_BTREE_PAGE_IS_LEAF(TDB_BTREE_PAGE_GET_FLAGS(pBtc->pPage)));
ASSERT(TDB_BTREE_PAGE_IS_LEAF(pBtc->pPage));
if (pBtc->idx < 0) return -1;
......@@ -1238,18 +1175,11 @@ static int tdbBtcMoveToNext(SBTC *pBtc) {
// Move downward
for (;;) {
nCells = TDB_PAGE_TOTAL_CELLS(pBtc->pPage);
if (pBtc->idx < nCells) {
pCell = tdbPageGetCell(pBtc->pPage, pBtc->idx);
pgno = *(SPgno *)pCell;
} else {
pgno = ((SIntHdr *)pBtc->pPage->pData)->pgno;
}
tdbBtcMoveDownward(pBtc, pgno);
tdbBtcMoveDownward(pBtc);
pBtc->idx = 0;
flags = TDB_BTREE_PAGE_GET_FLAGS(pBtc->pPage);
if (TDB_BTREE_PAGE_IS_LEAF(flags)) {
if (TDB_BTREE_PAGE_IS_LEAF(pBtc->pPage)) {
break;
}
}
......@@ -1257,13 +1187,20 @@ static int tdbBtcMoveToNext(SBTC *pBtc) {
return 0;
}
int tdbBtcClose(SBTC *pBtc) {
// TODO
return 0;
}
static int tdbBtcMoveDownward(SBTC *pBtc) {
int ret;
SPgno pgno;
SCell *pCell;
static int tdbBtcMoveDownward(SBTC *pBtc, SPgno pgno) {
int ret;
ASSERT(pBtc->idx >= 0);
ASSERT(!TDB_BTREE_PAGE_IS_LEAF(pBtc->pPage));
if (pBtc->idx < TDB_PAGE_TOTAL_CELLS(pBtc->pPage)) {
pCell = tdbPageGetCell(pBtc->pPage, pBtc->idx);
pgno = ((SPgno *)pCell)[0];
} else {
pgno = ((SIntHdr *)pBtc->pPage->pData)->pgno;
}
pBtc->pgStack[pBtc->iPage] = pBtc->pPage;
pBtc->idxStack[pBtc->iPage] = pBtc->idx;
......@@ -1274,6 +1211,7 @@ static int tdbBtcMoveDownward(SBTC *pBtc, SPgno pgno) {
ret = tdbPagerFetchPage(pBtc->pBt->pPager, pgno, &pBtc->pPage, tdbBtreeInitPage, pBtc->pBt);
if (ret < 0) {
ASSERT(0);
return -1;
}
return 0;
......@@ -1282,7 +1220,7 @@ static int tdbBtcMoveDownward(SBTC *pBtc, SPgno pgno) {
static int tdbBtcMoveUpward(SBTC *pBtc) {
if (pBtc->iPage == 0) return -1;
// tdbPagerReturnPage(pBtc->pBt->pPager, pBtc->pPage);
tdbPagerReturnPage(pBtc->pBt->pPager, pBtc->pPage);
pBtc->iPage--;
pBtc->pPage = pBtc->pgStack[pBtc->iPage];
......@@ -1291,6 +1229,117 @@ static int tdbBtcMoveUpward(SBTC *pBtc) {
return 0;
}
static int tdbBtcMoveTo(SBTC *pBtc, const void *pKey, int kLen, int *pCRst) {
int ret;
SBTree *pBt;
SPager *pPager;
pBt = pBtc->pBt;
pPager = pBt->pPager;
if (pBtc->iPage < 0) {
ASSERT(pBtc->iPage == -1);
ASSERT(pBtc->idx == -1);
// Move from the root
ret = tdbPagerFetchPage(pPager, pBt->root, &(pBtc->pPage), tdbBtreeInitPage, pBt);
if (ret < 0) {
ASSERT(0);
return -1;
}
pBtc->iPage = 0;
if (TDB_PAGE_TOTAL_CELLS(pBtc->pPage) == 0) {
// Current page is empty
// ASSERT(TDB_FLAG_IS(TDB_PAGE_FLAGS(pBtc->pPage), TDB_BTREE_ROOT | TDB_BTREE_LEAF));
return 0;
}
for (;;) {
int lidx, ridx, midx, c, nCells;
SCell *pCell;
SPage *pPage;
SCellDecoder cd = {0};
pPage = pBtc->pPage;
nCells = TDB_PAGE_TOTAL_CELLS(pPage);
lidx = 0;
ridx = nCells - 1;
ASSERT(nCells > 0);
for (;;) {
if (lidx > ridx) break;
midx = (lidx + ridx) >> 1;
pCell = tdbPageGetCell(pPage, midx);
ret = tdbBtreeDecodeCell(pPage, pCell, &cd);
if (ret < 0) {
// TODO: handle error
ASSERT(0);
return -1;
}
// Compare the key values
c = pBt->kcmpr(pKey, kLen, cd.pKey, cd.kLen);
if (c < 0) {
/* input-key < cell-key */
ridx = midx - 1;
} else if (c > 0) {
/* input-key > cell-key */
lidx = midx + 1;
} else {
/* input-key == cell-key */
break;
}
}
// Move downward or break
u8 leaf = TDB_BTREE_PAGE_IS_LEAF(pPage);
if (leaf) {
pBtc->idx = midx;
*pCRst = c;
break;
} else {
if (c <= 0) {
pBtc->idx = midx;
} else {
pBtc->idx = midx + 1;
}
tdbBtcMoveDownward(pBtc);
}
}
} else {
// TODO: Move the cursor from a some position instead of a clear state
ASSERT(0);
}
return 0;
}
int tdbBtcClose(SBTC *pBtc) {
if (pBtc->iPage < 0) return 0;
for (;;) {
ASSERT(pBtc->pPage);
tdbPagerReturnPage(pBtc->pBt->pPager, pBtc->pPage);
pBtc->iPage--;
if (pBtc->iPage < 0) break;
pBtc->pPage = pBtc->pgStack[pBtc->iPage];
pBtc->idx = pBtc->idxStack[pBtc->iPage];
}
return 0;
}
// TDB_BTREE_CURSOR
// TDB_BTREE_DEBUG =====================
#ifndef NODEBUG
typedef struct {
SPgno pgno;
......@@ -1304,17 +1353,14 @@ typedef struct {
SBtPageInfo btPageInfos[20];
void tdbBtPageInfo(SPage *pPage, int idx) {
u8 flags;
SBtPageInfo *pBtPageInfo;
pBtPageInfo = btPageInfos + idx;
pBtPageInfo->pgno = TDB_PAGE_PGNO(pPage);
flags = TDB_BTREE_PAGE_GET_FLAGS(pPage);
pBtPageInfo->root = TDB_BTREE_PAGE_IS_ROOT(flags);
pBtPageInfo->leaf = TDB_BTREE_PAGE_IS_LEAF(flags);
pBtPageInfo->root = TDB_BTREE_PAGE_IS_ROOT(pPage);
pBtPageInfo->leaf = TDB_BTREE_PAGE_IS_LEAF(pPage);
pBtPageInfo->rChild = 0;
if (!pBtPageInfo->leaf) {
......@@ -1324,4 +1370,5 @@ void tdbBtPageInfo(SPage *pPage, int idx) {
pBtPageInfo->nCells = TDB_PAGE_TOTAL_CELLS(pPage) - pPage->nOverflow;
pBtPageInfo->nOvfl = pPage->nOverflow;
}
#endif
\ No newline at end of file
#endif
// TDB_BTREE_DEBUG
\ No newline at end of file
......@@ -96,6 +96,10 @@ int tdbDbGet(TDB *pDb, const void *pKey, int kLen, void **ppVal, int *vLen) {
return tdbBtreeGet(pDb->pBt, pKey, kLen, ppVal, vLen);
}
int tdbDbPGet(TDB *pDb, const void *pKey, int kLen, void **ppKey, int *pkLen, void **ppVal, int *vLen) {
return tdbBtreePGet(pDb->pBt, pKey, kLen, ppKey, pkLen, ppVal, vLen);
}
int tdbDbcOpen(TDB *pDb, TDBC **ppDbc) {
int ret;
TDBC *pDbc = NULL;
......@@ -129,5 +133,11 @@ int tdbDbcClose(TDBC *pDbc) {
tdbOsFree(pDbc);
}
return 0;
}
int tdbDbcInsert(TDBC *pDbc, const void *pKey, int keyLen, const void *pVal, int valLen) {
// TODO
ASSERT(0);
return 0;
}
\ No newline at end of file
......@@ -122,7 +122,7 @@ static void tdbPCacheClearLock(SPCache *pCache) { tdbMutexDestroy(&(pCache->mute
static void tdbPCacheLock(SPCache *pCache) { tdbMutexLock(&(pCache->mutex)); }
static void tdbPCacheUnlock(SPCache *pCache) { tdbMutexDestroy(&(pCache->mutex)); }
static void tdbPCacheUnlock(SPCache *pCache) { tdbMutexUnlock(&(pCache->mutex)); }
static bool tdbPCacheLocked(SPCache *pCache) {
assert(0);
......
......@@ -242,6 +242,18 @@ void tdbPageCopy(SPage *pFromPage, SPage *pToPage) {
pToPage->nOverflow = pFromPage->nOverflow;
}
int tdbPageCapacity(int pageSize, int amHdrSize) {
int szPageHdr;
if (pageSize < 65536) {
szPageHdr = pageMethods.szPageHdr;
} else {
szPageHdr = pageLargeMethods.szPageHdr;
}
return pageSize - szPageHdr - amHdrSize;
}
static int tdbPageAllocate(SPage *pPage, int szCell, SCell **ppCell) {
SCell *pFreeCell;
u8 *pOffset;
......@@ -503,4 +515,81 @@ SPageMethods pageMethods = {
setPageCellOffset, // setCellOffset
getPageFreeCellInfo, // getFreeCellInfo
setPageFreeCellInfo // setFreeCellInfo
};
typedef struct __attribute__((__packed__)) {
u8 cellNum[3];
u8 cellBody[3];
u8 cellFree[3];
u8 nFree[3];
} SPageHdrL;
typedef struct __attribute__((__packed__)) {
u8 szCell[3];
u8 nxOffset[3];
} SFreeCellL;
// cellNum
static inline int getLPageCellNum(SPage *pPage) { return TDB_GET_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellNum); }
static inline void setLPageCellNum(SPage *pPage, int cellNum) {
TDB_PUT_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellNum, cellNum);
}
// cellBody
static inline int getLPageCellBody(SPage *pPage) { return TDB_GET_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellBody); }
static inline void setLPageCellBody(SPage *pPage, int cellBody) {
TDB_PUT_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellBody, cellBody);
}
// cellFree
static inline int getLPageCellFree(SPage *pPage) { return TDB_GET_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellFree); }
static inline void setLPageCellFree(SPage *pPage, int cellFree) {
TDB_PUT_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellFree, cellFree);
}
// nFree
static inline int getLPageNFree(SPage *pPage) { return TDB_GET_U24(((SPageHdrL *)(pPage->pPageHdr))[0].nFree); }
static inline void setLPageNFree(SPage *pPage, int nFree) {
TDB_PUT_U24(((SPageHdrL *)(pPage->pPageHdr))[0].nFree, nFree);
}
// cell offset
static inline int getLPageCellOffset(SPage *pPage, int idx) {
ASSERT(idx >= 0 && idx < getPageCellNum(pPage));
return TDB_GET_U24(pPage->pCellIdx + 3 * idx);
}
static inline void setLPageCellOffset(SPage *pPage, int idx, int offset) {
TDB_PUT_U24(pPage->pCellIdx + 3 * idx, offset);
}
// free cell info
static inline void getLPageFreeCellInfo(SCell *pCell, int *szCell, int *nxOffset) {
SFreeCellL *pFreeCell = (SFreeCellL *)pCell;
*szCell = TDB_GET_U24(pFreeCell->szCell);
*nxOffset = TDB_GET_U24(pFreeCell->nxOffset);
}
static inline void setLPageFreeCellInfo(SCell *pCell, int szCell, int nxOffset) {
SFreeCellL *pFreeCell = (SFreeCellL *)pCell;
TDB_PUT_U24(pFreeCell->szCell, szCell);
TDB_PUT_U24(pFreeCell->nxOffset, nxOffset);
}
SPageMethods pageLargeMethods = {
3, // szOffset
sizeof(SPageHdrL), // szPageHdr
sizeof(SFreeCellL), // szFreeCell
getLPageCellNum, // getCellNum
setLPageCellNum, // setCellNum
getLPageCellBody, // getCellBody
setLPageCellBody, // setCellBody
getLPageCellFree, // getCellFree
setLPageCellFree, // setCellFree
getLPageNFree, // getFreeBytes
setLPageNFree, // setFreeBytes
getLPageCellOffset, // getCellOffset
setLPageCellOffset, // setCellOffset
getLPageFreeCellInfo, // getFreeCellInfo
setLPageFreeCellInfo // setFreeCellInfo
};
\ No newline at end of file
......@@ -35,7 +35,6 @@ struct SBTC {
int idx;
int idxStack[BTREE_MAX_DEPTH + 1];
SPage *pgStack[BTREE_MAX_DEPTH + 1];
void *pBuf;
};
// SBTree
......@@ -43,12 +42,12 @@ int tdbBtreeOpen(int keyLen, int valLen, SPager *pFile, FKeyComparator kcmpr, SB
int tdbBtreeClose(SBTree *pBt);
int tdbBtCursorInsert(SBTC *pCur, const void *pKey, int kLen, const void *pVal, int vLen);
int tdbBtreeGet(SBTree *pBt, const void *pKey, int kLen, void **ppVal, int *vLen);
int tdbBtreePGet(SBTree *pBt, const void *pKey, int kLen, void **ppKey, int *pkLen, void **ppVal, int *vLen);
// SBTC
int tdbBtcOpen(SBTC *pCur, SBTree *pBt);
int tdbBtcMoveToFirst(SBTC *pBtc);
int tdbBtcMoveToLast(SBTC *pBtc);
int tdbBtcMoveTo(SBTC *pBtc, const void *pKey, int kLen);
int tdbBtreeNext(SBTC *pBtc, void **ppKey, int *kLen, void **ppVal, int *vLen);
int tdbBtcClose(SBTC *pBtc);
......
......@@ -29,11 +29,13 @@ int tdbDbClose(TDB *pDb);
int tdbDbDrop(TDB *pDb);
int tdbDbInsert(TDB *pDb, const void *pKey, int keyLen, const void *pVal, int valLen);
int tdbDbGet(TDB *pDb, const void *pKey, int kLen, void **ppVal, int *vLen);
int tdbDbPGet(TDB *pDb, const void *pKey, int kLen, void **ppKey, int *pkLen, void **ppVal, int *vLen);
// TDBC
int tdbDbcOpen(TDB *pDb, TDBC **ppDbc);
int tdbDbNext(TDBC *pDbc, void **ppKey, int *kLen, void **ppVal, int *vLen);
int tdbDbcClose(TDBC *pDbc);
int tdbDbcInsert(TDBC *pDbc, const void *pKey, int keyLen, const void *pVal, int valLen);
#ifdef __cplusplus
}
......
......@@ -64,7 +64,7 @@ typedef TdThreadSpinlock tdb_spinlock_t;
#define tdbSpinlockDestroy taosThreadSpinDestroy
#define tdbSpinlockLock taosThreadSpinLock
#define tdbSpinlockUnlock taosThreadSpinUnlock
#define tdbSpinlockTrylock pthread_spin_trylock
#define tdbSpinlockTrylock taosThreadSpinTrylock
/* mutex lock */
typedef TdThreadMutex tdb_mutex_t;
......
......@@ -111,6 +111,7 @@ void tdbPageInit(SPage *pPage, u8 szAmHdr, int (*xCellSize)(const SPage *, SCell
int tdbPageInsertCell(SPage *pPage, int idx, SCell *pCell, int szCell, u8 asOvfl);
int tdbPageDropCell(SPage *pPage, int idx);
void tdbPageCopy(SPage *pFromPage, SPage *pToPage);
int tdbPageCapacity(int pageSize, int amHdrSize);
static inline SCell *tdbPageGetCell(SPage *pPage, int idx) {
SCell *pCell;
......
......@@ -20,7 +20,7 @@
extern "C" {
#endif
typedef struct STxn STXN;
typedef struct STxn TXN;
struct STxn {
u64 txnId;
......
/*
* Copyright (c) 2019 TAOS Data, Inc. <jhtao@taosdata.com>
*
* This program is free software: you can use, redistribute, and/or modify
* it under the terms of the GNU Affero General Public License, version 3
* or later ("AGPL"), as published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful, but WITHOUT
* ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
* FITNESS FOR A PARTICULAR PURPOSE.
*
* You should have received a copy of the GNU Affero General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "tdbInt.h"
typedef struct __attribute__((__packed__)) {
u8 cellNum[3];
u8 cellBody[3];
u8 cellFree[3];
u8 nFree[3];
} SPageHdrL;
typedef struct __attribute__((__packed__)) {
u8 szCell[3];
u8 nxOffset[3];
} SFreeCellL;
// cellNum
static inline int getPageCellNum(SPage *pPage) { return TDB_GET_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellNum); }
static inline void setPageCellNum(SPage *pPage, int cellNum) {
TDB_PUT_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellNum, cellNum);
}
// cellBody
static inline int getPageCellBody(SPage *pPage) { return TDB_GET_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellBody); }
static inline void setPageCellBody(SPage *pPage, int cellBody) {
TDB_PUT_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellBody, cellBody);
}
// cellFree
static inline int getPageCellFree(SPage *pPage) { return TDB_GET_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellFree); }
static inline void setPageCellFree(SPage *pPage, int cellFree) {
TDB_PUT_U24(((SPageHdrL *)(pPage->pPageHdr))[0].cellFree, cellFree);
}
// nFree
static inline int getPageNFree(SPage *pPage) { return TDB_GET_U24(((SPageHdrL *)(pPage->pPageHdr))[0].nFree); }
static inline void setPageNFree(SPage *pPage, int nFree) {
TDB_PUT_U24(((SPageHdrL *)(pPage->pPageHdr))[0].nFree, nFree);
}
// cell offset
static inline int getPageCellOffset(SPage *pPage, int idx) {
ASSERT(idx >= 0 && idx < getPageCellNum(pPage));
return TDB_GET_U24(pPage->pCellIdx + 3 * idx);
}
static inline void setPageCellOffset(SPage *pPage, int idx, int offset) {
TDB_PUT_U24(pPage->pCellIdx + 3 * idx, offset);
}
// free cell info
static inline void getPageFreeCellInfo(SCell *pCell, int *szCell, int *nxOffset) {
SFreeCellL *pFreeCell = (SFreeCellL *)pCell;
*szCell = TDB_GET_U24(pFreeCell->szCell);
*nxOffset = TDB_GET_U24(pFreeCell->nxOffset);
}
static inline void setPageFreeCellInfo(SCell *pCell, int szCell, int nxOffset) {
SFreeCellL *pFreeCell = (SFreeCellL *)pCell;
TDB_PUT_U24(pFreeCell->szCell, szCell);
TDB_PUT_U24(pFreeCell->nxOffset, nxOffset);
}
SPageMethods pageLargeMethods = {
3, // szOffset
sizeof(SPageHdrL), // szPageHdr
sizeof(SFreeCellL), // szFreeCell
getPageCellNum, // getCellNum
setPageCellNum, // setCellNum
getPageCellBody, // getCellBody
setPageCellBody, // setCellBody
getPageCellFree, // getCellFree
setPageCellFree, // setCellFree
getPageNFree, // getFreeBytes
setPageNFree, // setFreeBytes
getPageCellOffset, // getCellOffset
setPageCellOffset, // setCellOffset
getPageFreeCellInfo, // getFreeCellInfo
setPageFreeCellInfo // setFreeCellInfo
};
\ No newline at end of file
......@@ -17,6 +17,8 @@
#include <malloc.h>
#include "os.h"
#ifdef USE_TD_MEMORY
#define TD_MEMORY_SYMBOL ('T'<<24|'A'<<16|'O'<<8|'S')
#define TD_MEMORY_STACK_TRACE_DEPTH 10
......@@ -70,6 +72,8 @@ int32_t taosBackTrace(void **buffer, int32_t size) {
// return backtrace_symbols(buffer, *size);
// }
#endif
void *taosMemoryMalloc(int32_t size) {
#ifdef USE_TD_MEMORY
void *tmp = malloc(size + sizeof(TdMemoryInfo));
......@@ -126,9 +130,9 @@ void *taosMemoryRealloc(void *ptr, int32_t size) {
}
void taosMemoryFree(const void *ptr) {
#ifdef USE_TD_MEMORY
if (ptr == NULL) return;
#ifdef USE_TD_MEMORY
TdMemoryInfoPtr pTdMemoryInfo = (TdMemoryInfoPtr)((char*)ptr - sizeof(TdMemoryInfo));
if(pTdMemoryInfo->symbol == TD_MEMORY_SYMBOL) {
pTdMemoryInfo->memorySize = 0;
......@@ -143,9 +147,9 @@ void taosMemoryFree(const void *ptr) {
}
int32_t taosMemorySize(void *ptr) {
#ifdef USE_TD_MEMORY
if (ptr == NULL) return 0;
#ifdef USE_TD_MEMORY
TdMemoryInfoPtr pTdMemoryInfo = (TdMemoryInfoPtr)((char*)ptr - sizeof(TdMemoryInfo));
assert(pTdMemoryInfo->symbol == TD_MEMORY_SYMBOL);
......
......@@ -13,4 +13,15 @@
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include "consumer.h"
#define ALLOW_FORBID_FUNC
#define _DEFAULT_SOURCE
#include "os.h"
int32_t taosNewProc(const char *args) {
return 0;
}
void taosSetProcName(char **argv, const char *name) {
prctl(PR_SET_NAME, name);
strcpy(argv[0], name);
}
\ No newline at end of file
/*
* Copyright (c) 2019 TAOS Data, Inc. <jhtao@taosdata.com>
*
* This program is free software: you can use, redistribute, and/or modify
* it under the terms of the GNU Affero General Public License, version 3
* or later ("AGPL"), as published by the Free Software Foundation.
*
* This program is distributed in the hope that it will be useful, but WITHOUT
* ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
* FITNESS FOR A PARTICULAR PURPOSE.
*
* You should have received a copy of the GNU Affero General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#define ALLOW_FORBID_FUNC
#define _DEFAULT_SOURCE
#include "os.h"
int32_t taosCreateShm(SShm* pShm, int32_t shmsize) {
pShm->id = -1;
int32_t shmid = shmget(0X95279527, shmsize, IPC_CREAT | 0600);
if (shmid < 0) {
return -1;
}
void* shmptr = shmat(shmid, NULL, 0);
if (shmptr == NULL) {
return -1;
}
pShm->id = shmid;
pShm->size = shmsize;
pShm->ptr = shmptr;
return 0;
}
void taosDropShm(SShm* pShm) {
if (pShm->id >= 0) {
if (pShm->ptr != NULL) {
shmdt(pShm->ptr);
}
shmctl(pShm->id, IPC_RMID, NULL);
}
pShm->id = -1;
pShm->size = 0;
pShm->ptr = NULL;
}
int32_t taosAttachShm(SShm* pShm) {
errno = 0;
void* ptr = shmat(pShm->id, NULL, 0);
if (errno == 0) {
pShm->ptr = ptr;
}
return errno;
}
......@@ -71,4 +71,6 @@ void taosIgnSignal(int32_t signum) { signal(signum, SIG_IGN); }
void taosDflSignal(int32_t signum) { signal(signum, SIG_DFL); }
void taosKillChildOnSelfStopped() { prctl(PR_SET_PDEATHSIG, SIGKILL); }
#endif
......@@ -758,7 +758,7 @@ void taosBlockSIGPIPE() {
sigset_t signal_mask;
sigemptyset(&signal_mask);
sigaddset(&signal_mask, SIGPIPE);
int32_t rc = taosThreadSigmask(SIG_BLOCK, &signal_mask, NULL);
int32_t rc = taosThreadSigMask(SIG_BLOCK, &signal_mask, NULL);
if (rc != 0) {
// printf("failed to block SIGPIPE");
}
......@@ -876,7 +876,7 @@ void taosSetMaskSIGPIPE() {
sigset_t signal_mask;
sigemptyset(&signal_mask);
sigaddset(&signal_mask, SIGPIPE);
int32_t rc = taosThreadSigmask(SIG_SETMASK, &signal_mask, NULL);
int32_t rc = taosThreadSigMask(SIG_SETMASK, &signal_mask, NULL);
if (rc != 0) {
// printf("failed to setmask SIGPIPE");
}
......
......@@ -14,132 +14,341 @@
*/
#define ALLOW_FORBID_FUNC
#include <pthread.h>
#include "os.h"
// int32_t taosThreadSetnameNp(TdThread thread, const char *name) {
// return pthread_setname_np(thread,name);
// }
int32_t taosThreadCreate(TdThread * tid, const TdThreadAttr * attr, void *(*start)(void *), void *arg) {
return pthread_create(tid, attr, start, arg);
}
int32_t taosThreadAttrDestroy(TdThreadAttr * attr) {
return pthread_attr_destroy(attr);
}
int32_t taosThreadAttrGetDetachState(const TdThreadAttr * attr, int32_t *detachstate) {
return pthread_attr_getdetachstate(attr, detachstate);
}
int32_t taosThreadAttrGetInheritSched(const TdThreadAttr * attr, int32_t *inheritsched) {
return pthread_attr_getinheritsched(attr, inheritsched);
}
int32_t taosThreadAttrGetSchedParam(const TdThreadAttr * attr, struct sched_param *param) {
return pthread_attr_getschedparam(attr, param);
}
int32_t taosThreadAttrGetSchedPolicy(const TdThreadAttr * attr, int32_t *policy) {
return pthread_attr_getschedpolicy(attr, policy);
}
int32_t taosThreadAttrGetScope(const TdThreadAttr * attr, int32_t *contentionscope) {
return pthread_attr_getscope(attr, contentionscope);
}
int32_t taosThreadAttrGetStackSize(const TdThreadAttr * attr, size_t * stacksize) {
return pthread_attr_getstacksize(attr, stacksize);
}
int32_t taosThreadAttrInit(TdThreadAttr * attr) {
return pthread_attr_init(attr);
}
int32_t taosThreadAttrSetDetachState(TdThreadAttr * attr, int32_t detachstate) {
return pthread_attr_setdetachstate(attr, detachstate);
}
int32_t taosThreadAttrSetInheritSched(TdThreadAttr * attr, int32_t inheritsched) {
return pthread_attr_setinheritsched(attr, inheritsched);
}
int32_t taosThreadAttrSetSchedParam(TdThreadAttr * attr, const struct sched_param *param) {
return pthread_attr_setschedparam(attr, param);
}
int32_t taosThreadAttrSetSchedPolicy(TdThreadAttr * attr, int32_t policy) {
return pthread_attr_setschedpolicy(attr, policy);
}
int32_t taosThreadAttrSetScope(TdThreadAttr * attr, int32_t contentionscope) {
return pthread_attr_setscope(attr, contentionscope);
}
int32_t taosThreadAttrSetStackSize(TdThreadAttr * attr, size_t stacksize) {
return pthread_attr_setstacksize(attr, stacksize);
}
int32_t taosThreadBarrierDestroy(TdThreadBarrier * barrier) {
return pthread_barrier_destroy(barrier);
}
int32_t taosThreadBarrierInit(TdThreadBarrier * barrier, const TdThreadBarrierAttr * attr, uint32_t count) {
return pthread_barrier_init(barrier, attr, count);
}
int32_t taosThreadBarrierWait(TdThreadBarrier * barrier) {
return pthread_barrier_wait(barrier);
}
int32_t taosThreadBarrierAttrDestroy(TdThreadBarrierAttr * attr) {
return pthread_barrierattr_destroy(attr);
}
int32_t taosThreadBarrierAttrGetPshared(const TdThreadBarrierAttr * attr, int32_t *pshared) {
return pthread_barrierattr_getpshared(attr, pshared);
}
int32_t taosThreadBarrierAttrInit(TdThreadBarrierAttr * attr) {
return pthread_barrierattr_init(attr);
}
int32_t taosThreadBarrierAttrSetPshared(TdThreadBarrierAttr * attr, int32_t pshared) {
return pthread_barrierattr_setpshared(attr, pshared);
}
int32_t taosThreadCancel(TdThread thread) {
return pthread_cancel(thread);
}
int32_t taosThreadCondDestroy(TdThreadCond * cond) {
return pthread_cond_destroy(cond);
}
int32_t taosThreadCondInit(TdThreadCond * cond, const TdThreadCondAttr * attr) {
return pthread_cond_init(cond, attr);
}
int32_t taosThreadCondSignal(TdThreadCond * cond) {
return pthread_cond_signal(cond);
}
int32_t taosThreadCondBroadcast(TdThreadCond * cond) {
return pthread_cond_broadcast(cond);
}
int32_t taosThreadCondWait(TdThreadCond * cond, TdThreadMutex * mutex) {
return pthread_cond_wait(cond, mutex);
}
int32_t taosThreadSpinInit(TdThreadSpinlock *lock, int pshared) {
return pthread_spin_init(lock, pshared);
int32_t taosThreadCondTimedWait(TdThreadCond * cond, TdThreadMutex * mutex, const struct timespec *abstime) {
return pthread_cond_timedwait(cond, mutex, abstime);
}
int32_t taosThreadMutexInit(TdThreadMutex *mutex, const TdThreadMutexAttr *attr) {
return pthread_mutex_init(mutex, attr);
int32_t taosThreadCondAttrDestroy(TdThreadCondAttr * attr) {
return pthread_condattr_destroy(attr);
}
int32_t taosThreadSpinDestroy(TdThreadSpinlock *lock) {
return pthread_spin_destroy(lock);
int32_t taosThreadCondAttrGetPshared(const TdThreadCondAttr * attr, int32_t *pshared) {
return pthread_condattr_getpshared(attr, pshared);
}
int32_t taosThreadCondAttrInit(TdThreadCondAttr * attr) {
return pthread_condattr_init(attr);
}
int32_t taosThreadCondAttrSetPshared(TdThreadCondAttr * attr, int32_t pshared) {
return pthread_condattr_setpshared(attr, pshared);
}
int32_t taosThreadDetach(TdThread thread) {
return pthread_detach(thread);
}
int32_t taosThreadEqual(TdThread t1, TdThread t2) {
return pthread_equal(t1, t2);
}
void taosThreadExit(void *valuePtr) {
return pthread_exit(valuePtr);
}
int32_t taosThreadGetSchedParam(TdThread thread, int32_t *policy, struct sched_param *param) {
return pthread_getschedparam(thread, policy, param);
}
void *taosThreadGetSpecific(TdThreadKey key) {
return pthread_getspecific(key);
}
int32_t taosThreadJoin(TdThread thread, void **valuePtr) {
return pthread_join(thread, valuePtr);
}
int32_t taosThreadKeyCreate(TdThreadKey * key, void(*destructor)(void *)) {
return pthread_key_create(key, destructor);
}
int32_t taosThreadKeyDelete(TdThreadKey key) {
return pthread_key_delete(key);
}
int32_t taosThreadKill(TdThread thread, int32_t sig) {
return pthread_kill(thread, sig);
}
int32_t taosThreadMutexConsistent(TdThreadMutex* mutex) {
return pthread_mutex_consistent(mutex);
}
int32_t taosThreadMutexDestroy(TdThreadMutex * mutex) {
return pthread_mutex_destroy(mutex);
return pthread_mutex_destroy(mutex);
}
int32_t taosThreadSpinLock(TdThreadSpinlock *lock) {
return pthread_spin_lock(lock);
int32_t taosThreadMutexInit(TdThreadMutex * mutex, const TdThreadMutexAttr * attr) {
return pthread_mutex_init(mutex, attr);
}
int32_t taosThreadMutexLock(TdThreadMutex *mutex) {
return pthread_mutex_lock(mutex);
int32_t taosThreadMutexLock(TdThreadMutex * mutex) {
return pthread_mutex_lock(mutex);
}
int32_t taosThreadSpinUnlock(TdThreadSpinlock *lock) {
return pthread_spin_unlock(lock);
int32_t taosThreadMutexTimedLock(TdThreadMutex * mutex, const struct timespec *abstime) {
return pthread_mutex_timedlock(mutex, abstime);
}
int32_t taosThreadMutexUnlock(TdThreadMutex *mutex) {
return pthread_mutex_unlock(mutex);
int32_t taosThreadMutexTryLock(TdThreadMutex * mutex) {
return pthread_mutex_trylock(mutex);
}
int32_t taosThreadRwlockRdlock(TdThreadRwlock *rwlock) {
return pthread_rwlock_rdlock(rwlock);
int32_t taosThreadMutexUnlock(TdThreadMutex * mutex) {
return pthread_mutex_unlock(mutex);
}
int32_t taosThreadRwlockWrlock(TdThreadRwlock *rwlock) {
return pthread_rwlock_wrlock(rwlock);
int32_t taosThreadMutexAttrDestroy(TdThreadMutexAttr * attr) {
return pthread_mutexattr_destroy(attr);
}
int32_t taosThreadRwlockUnlock(TdThreadRwlock *rwlock) {
return pthread_rwlock_unlock(rwlock);
int32_t taosThreadMutexAttrGetPshared(const TdThreadMutexAttr * attr, int32_t *pshared) {
return pthread_mutexattr_getpshared(attr, pshared);
}
void taosThreadTestCancel(void) {
return pthread_testcancel();
int32_t taosThreadMutexAttrGetRobust(const TdThreadMutexAttr * attr, int32_t * robust) {
return pthread_mutexattr_getrobust(attr, robust);
}
int32_t taosThreadMutexAttrGetType(const TdThreadMutexAttr * attr, int32_t *kind) {
return pthread_mutexattr_gettype(attr, kind);
}
int32_t taosThreadAttrInit(TdThreadAttr *attr) {
return pthread_attr_init(attr);
int32_t taosThreadMutexAttrInit(TdThreadMutexAttr * attr) {
return pthread_mutexattr_init(attr);
}
int32_t taosThreadCreate(TdThread *tid, const TdThreadAttr *attr, void*(*start)(void*), void *arg) {
return pthread_create(tid, attr, start, arg);
int32_t taosThreadMutexAttrSetPshared(TdThreadMutexAttr * attr, int32_t pshared) {
return pthread_mutexattr_setpshared(attr, pshared);
}
int32_t taosThreadOnce(TdThreadOnce *onceControl, void(*initRoutine)(void)) {
return pthread_once(onceControl, initRoutine);
int32_t taosThreadMutexAttrSetRobust(TdThreadMutexAttr * attr, int32_t robust) {
return pthread_mutexattr_setrobust(attr, robust);
}
int32_t taosThreadAttrSetDetachState(TdThreadAttr *attr, int32_t detachState) {
return pthread_attr_setdetachstate(attr, detachState);
int32_t taosThreadMutexAttrSetType(TdThreadMutexAttr * attr, int32_t kind) {
return pthread_mutexattr_settype(attr, kind);
}
int32_t taosThreadAttrDestroy(TdThreadAttr *attr) {
return pthread_attr_destroy(attr);
int32_t taosThreadOnce(TdThreadOnce * onceControl, void(*initRoutine)(void)) {
return pthread_once(onceControl, initRoutine);
}
int32_t taosThreadJoin(TdThread thread, void **pValue) {
return pthread_join(thread, pValue);
int32_t taosThreadRwlockDestroy(TdThreadRwlock * rwlock) {
return pthread_rwlock_destroy(rwlock);
}
int32_t taosThreadRwlockInit(TdThreadRwlock *rwlock, const TdThreadRwlockAttr *attr) {
return pthread_rwlock_init(rwlock, attr);
int32_t taosThreadRwlockInit(TdThreadRwlock * rwlock, const TdThreadRwlockAttr * attr) {
return pthread_rwlock_init(rwlock, attr);
}
int32_t taosThreadRwlockDestroy(TdThreadRwlock *rwlock) {
return pthread_rwlock_destroy(rwlock);
int32_t taosThreadRwlockRdlock(TdThreadRwlock * rwlock) {
return pthread_rwlock_rdlock(rwlock);
}
int32_t taosThreadCondSignal(TdThreadCond *cond) {
return pthread_cond_signal(cond);
int32_t taosThreadRwlockTimedRdlock(TdThreadRwlock * rwlock, const struct timespec *abstime) {
return pthread_rwlock_timedrdlock(rwlock, abstime);
}
int32_t taosThreadCondInit(TdThreadCond *cond, const TdThreadCondAttr *attr) {
return pthread_cond_init(cond, attr);
int32_t taosThreadRwlockTimedWrlock(TdThreadRwlock * rwlock, const struct timespec *abstime) {
return pthread_rwlock_timedwrlock(rwlock, abstime);
}
int32_t taosThreadCondBroadcast(TdThreadCond *cond) {
return pthread_cond_broadcast(cond);
int32_t taosThreadRwlockTryRdlock(TdThreadRwlock * rwlock) {
return pthread_rwlock_tryrdlock(rwlock);
}
int32_t taosThreadCondDestroy(TdThreadCond *cond) {
return pthread_cond_destroy(cond);
int32_t taosThreadRwlockTryWrlock(TdThreadRwlock * rwlock) {
return pthread_rwlock_trywrlock(rwlock);
}
int32_t taosThreadCondWait(TdThreadCond *cond, TdThreadMutex *mutex) {
return pthread_cond_wait(cond, mutex);
int32_t taosThreadRwlockUnlock(TdThreadRwlock * rwlock) {
return pthread_rwlock_unlock(rwlock);
}
int32_t taosThreadRwlockWrlock(TdThreadRwlock * rwlock) {
return pthread_rwlock_wrlock(rwlock);
}
int32_t taosThreadRwlockAttrDestroy(TdThreadRwlockAttr * attr) {
return pthread_rwlockattr_destroy(attr);
}
int32_t taosThreadRwlockAttrGetPshared(const TdThreadRwlockAttr * attr, int32_t *pshared) {
return pthread_rwlockattr_getpshared(attr, pshared);
}
int32_t taosThreadRwlockAttrInit(TdThreadRwlockAttr * attr) {
return pthread_rwlockattr_init(attr);
}
int32_t taosThreadRwlockAttrSetPshared(TdThreadRwlockAttr * attr, int32_t pshared) {
return pthread_rwlockattr_setpshared(attr, pshared);
}
TdThread taosThreadSelf(void) {
return pthread_self();
return pthread_self();
}
// int32_t taosThreadGetW32ThreadIdNp(TdThread thread) {
// return pthread_getw32threadid_np(thread);
// }
int32_t taosThreadSetCancelState(int32_t state, int32_t *oldstate) {
return pthread_setcancelstate(state, oldstate);
}
int32_t taosThreadEqual(TdThread t1, TdThread t2) {
return pthread_equal(t1, t2);
int32_t taosThreadSetCancelType(int32_t type, int32_t *oldtype) {
return pthread_setcanceltype(type, oldtype);
}
int32_t taosThreadSigmask(int how, sigset_t const *set, sigset_t *oset) {
return pthread_sigmask(how, set, oset);
int32_t taosThreadSetSchedParam(TdThread thread, int32_t policy, const struct sched_param *param) {
return pthread_setschedparam(thread, policy, param);
}
int32_t taosThreadCancel(TdThread thread) {
return pthread_cancel(thread);
int32_t taosThreadSetSpecific(TdThreadKey key, const void *value) {
return pthread_setspecific(key, value);
}
int32_t taosThreadSpinDestroy(TdThreadSpinlock * lock) {
return pthread_spin_destroy(lock);
}
int32_t taosThreadSpinInit(TdThreadSpinlock * lock, int32_t pshared) {
return pthread_spin_init(lock, pshared);
}
int32_t taosThreadSpinLock(TdThreadSpinlock * lock) {
return pthread_spin_lock(lock);
}
int32_t taosThreadSpinTrylock(TdThreadSpinlock * lock) {
return pthread_spin_trylock(lock);
}
int32_t taosThreadSpinUnlock(TdThreadSpinlock * lock) {
return pthread_spin_unlock(lock);
}
void taosThreadTestCancel(void) {
return pthread_testcancel();
}
int32_t taosThreadSigMask(int32_t how, sigset_t const *set, sigset_t * oset) {
return pthread_sigmask(how, set, oset);
}
int32_t taosThreadKill(TdThread thread, int sig) {
return pthread_kill(thread, sig);
int32_t taosThreadSigWait(const sigset_t * set, int32_t *sig) {
return sigwait(set, sig);
}
\ No newline at end of file
......@@ -85,7 +85,7 @@ TAOS_DEFINE_ERROR(TSDB_CODE_REPEAT_INIT, "Repeat initialization
TAOS_DEFINE_ERROR(TSDB_CODE_CFG_NOT_FOUND, "Config not found")
TAOS_DEFINE_ERROR(TSDB_CODE_INVALID_CFG, "Invalid config option")
TAOS_DEFINE_ERROR(TSDB_CODE_OUT_OF_SHM_MEM, "Out of Share memory")
TAOS_DEFINE_ERROR(TSDB_CODE_INVALID_SHM_ID, "Invalid SHM ID")
TAOS_DEFINE_ERROR(TSDB_CODE_REF_NO_MEMORY, "Ref out of memory")
TAOS_DEFINE_ERROR(TSDB_CODE_REF_FULL, "too many Ref Objs")
TAOS_DEFINE_ERROR(TSDB_CODE_REF_ID_REMOVED, "Ref ID is removed")
......
......@@ -23,34 +23,36 @@
typedef void *(*ProcThreadFp)(void *param);
typedef struct SProcQueue {
int32_t head;
int32_t tail;
int32_t total;
int32_t avail;
int32_t items;
char *pBuffer;
ProcMallocFp mallocHeadFp;
ProcFreeFp freeHeadFp;
ProcMallocFp mallocBodyFp;
ProcFreeFp freeBodyFp;
ProcConsumeFp consumeFp;
void *pParent;
tsem_t sem;
TdThreadMutex *mutex;
int32_t mutexShmid;
int32_t bufferShmid;
const char *name;
int32_t head;
int32_t tail;
int32_t total;
int32_t avail;
int32_t items;
char name[8];
TdThreadMutex mutex;
tsem_t sem;
char pBuffer[];
} SProcQueue;
typedef struct SProcObj {
TdThread childThread;
SProcQueue *pChildQueue;
TdThread parentThread;
SProcQueue *pParentQueue;
const char *name;
int32_t pid;
bool isChild;
bool stopFlag;
TdThread thread;
SProcQueue *pChildQueue;
SProcQueue *pParentQueue;
ProcConsumeFp childConsumeFp;
ProcMallocFp childMallocHeadFp;
ProcFreeFp childFreeHeadFp;
ProcMallocFp childMallocBodyFp;
ProcFreeFp childFreeBodyFp;
ProcConsumeFp parentConsumeFp;
ProcMallocFp parentMallocHeadFp;
ProcFreeFp parentFreeHeadFp;
ProcMallocFp parentMallocBodyFp;
ProcFreeFp parentFreeBodyFp;
void *pParent;
const char *name;
int32_t pid;
bool isChild;
bool stopFlag;
} SProcObj;
static inline int32_t CEIL8(int32_t v) {
......@@ -58,150 +60,94 @@ static inline int32_t CEIL8(int32_t v) {
return c < 8 ? 8 : c;
}
static int32_t taosProcInitMutex(TdThreadMutex **ppMutex, int32_t *pShmid) {
TdThreadMutex *pMutex = NULL;
static int32_t taosProcInitMutex(SProcQueue *pQueue) {
TdThreadMutexAttr mattr = {0};
int32_t shmid = -1;
int32_t code = -1;
if (pthread_mutexattr_init(&mattr) != 0) {
if (taosThreadMutexAttrInit(&mattr) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
uError("failed to init mutex while init attr since %s", terrstr());
goto _OVER;
return -1;
}
if (pthread_mutexattr_setpshared(&mattr, PTHREAD_PROCESS_SHARED) != 0) {
if (taosThreadMutexAttrSetPshared(&mattr, PTHREAD_PROCESS_SHARED) != 0) {
taosThreadMutexAttrDestroy(&mattr);
terrno = TAOS_SYSTEM_ERROR(errno);
uError("failed to init mutex while set shared since %s", terrstr());
goto _OVER;
}
shmid = shmget(IPC_PRIVATE, sizeof(TdThreadMutex), IPC_CREAT | 0600);
if (shmid <= 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
uError("failed to init mutex while shmget since %s", terrstr());
goto _OVER;
}
pMutex = (TdThreadMutex *)shmat(shmid, NULL, 0);
if (pMutex == NULL) {
terrno = TAOS_SYSTEM_ERROR(errno);
uError("failed to init mutex while shmat since %s", terrstr());
goto _OVER;
return -1;
}
if (taosThreadMutexInit(pMutex, &mattr) != 0) {
if (taosThreadMutexInit(&pQueue->mutex, &mattr) != 0) {
taosThreadMutexDestroy(&pQueue->mutex);
terrno = TAOS_SYSTEM_ERROR(errno);
uError("failed to init mutex since %s", terrstr());
goto _OVER;
}
code = 0;
_OVER:
if (code != 0) {
if (pMutex != NULL) {
taosThreadMutexDestroy(pMutex);
shmdt(pMutex);
}
if (shmid >= 0) {
shmctl(shmid, IPC_RMID, NULL);
}
} else {
*ppMutex = pMutex;
*pShmid = shmid;
return -1;
}
pthread_mutexattr_destroy(&mattr);
return code;
}
static void taosProcDestroyMutex(TdThreadMutex *pMutex, int32_t shmid) {
if (pMutex != NULL) {
taosThreadMutexDestroy(pMutex);
}
if (shmid >= 0) {
shmctl(shmid, IPC_RMID, NULL);
}
taosThreadMutexAttrDestroy(&mattr);
return 0;
}
static int32_t taosProcInitBuffer(void **ppBuffer, int32_t size) {
int32_t shmid = shmget(IPC_PRIVATE, size, IPC_CREAT | 0600);
if (shmid <= 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
uError("failed to init buffer while shmget since %s", terrstr());
return -1;
}
void *shmptr = shmat(shmid, NULL, 0);
if (shmptr == NULL) {
static int32_t taosProcInitSem(SProcQueue *pQueue) {
if (tsem_init(&pQueue->sem, 1, 0) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
uError("failed to init buffer while shmat since %s", terrstr());
shmctl(shmid, IPC_RMID, NULL);
uError("failed to init sem");
return -1;
}
*ppBuffer = shmptr;
return shmid;
return 0;
}
static void taosProcDestroyBuffer(void *pBuffer, int32_t shmid) {
if (shmid > 0) {
shmdt(pBuffer);
shmctl(shmid, IPC_RMID, NULL);
static SProcQueue *taosProcInitQueue(const char *name, bool isChild, char *ptr, int32_t size) {
int32_t bufSize = size - CEIL8(sizeof(SProcQueue));
if (bufSize <= 1024) {
terrno = TSDB_CODE_OUT_OF_MEMORY;
return NULL;
}
}
static SProcQueue *taosProcInitQueue(int32_t size) {
if (size <= 0) size = SHM_DEFAULT_SIZE;
SProcQueue *pQueue = (SProcQueue *)(ptr);
int32_t bufSize = CEIL8(size);
int32_t headSize = CEIL8(sizeof(SProcQueue));
if (!isChild) {
if (taosProcInitMutex(pQueue) != 0) {
return NULL;
}
SProcQueue *pQueue = NULL;
int32_t shmId = taosProcInitBuffer((void **)&pQueue, bufSize + headSize);
if (shmId < 0) {
terrno = TSDB_CODE_OUT_OF_MEMORY;
return NULL;
}
pQueue->bufferShmid = shmId;
if (taosProcInitSem(pQueue) != 0) {
return NULL;
}
if (taosProcInitMutex(&pQueue->mutex, &pQueue->mutexShmid) != 0) {
taosProcDestroyBuffer(pQueue, pQueue->bufferShmid);
return NULL;
tstrncpy(pQueue->name, name, sizeof(pQueue->name));
pQueue->head = 0;
pQueue->tail = 0;
pQueue->total = bufSize;
pQueue->avail = bufSize;
pQueue->items = 0;
}
if (tsem_init(&pQueue->sem, 1, 0) != 0) {
taosProcDestroyMutex(pQueue->mutex, pQueue->mutexShmid);
taosProcDestroyBuffer(pQueue, pQueue->bufferShmid);
terrno = TSDB_CODE_OUT_OF_MEMORY;
return NULL;
}
return pQueue;
}
if (taosProcInitMutex(&pQueue->mutex, &pQueue->mutexShmid) != 0) {
tsem_destroy(&pQueue->sem);
taosProcDestroyMutex(pQueue->mutex, pQueue->mutexShmid);
taosProcDestroyBuffer(pQueue, pQueue->bufferShmid);
return NULL;
#if 0
static void taosProcDestroyMutex(SProcQueue *pQueue) {
if (pQueue->mutex != NULL) {
taosThreadMutexDestroy(pQueue->mutex);
pQueue->mutex = NULL;
}
}
pQueue->head = 0;
pQueue->tail = 0;
pQueue->total = bufSize;
pQueue->avail = bufSize;
pQueue->items = 0;
pQueue->pBuffer = (char *)pQueue + headSize;
return pQueue;
static void taosProcDestroySem(SProcQueue *pQueue) {
if (pQueue->sem != NULL) {
tsem_destroy(pQueue->sem);
pQueue->sem = NULL;
}
}
static void taosProcCleanupQueue(SProcQueue *pQueue) {
if (pQueue != NULL) {
uDebug("proc:%s, queue:%p clean up", pQueue->name, pQueue);
tsem_destroy(&pQueue->sem);
taosProcDestroyMutex(pQueue->mutex, pQueue->mutexShmid);
taosProcDestroyBuffer(pQueue, pQueue->bufferShmid);
taosProcDestroyMutex(pQueue);
taosProcDestroySem(pQueue);
}
}
#endif
static int32_t taosProcQueuePush(SProcQueue *pQueue, const char *pHead, int16_t rawHeadLen, const char *pBody,
int32_t rawBodyLen, ProcFuncType ftype) {
......@@ -209,9 +155,9 @@ static int32_t taosProcQueuePush(SProcQueue *pQueue, const char *pHead, int16_t
const int32_t bodyLen = CEIL8(rawBodyLen);
const int32_t fullLen = headLen + bodyLen + 8;
taosThreadMutexLock(pQueue->mutex);
taosThreadMutexLock(&pQueue->mutex);
if (fullLen > pQueue->avail) {
taosThreadMutexUnlock(pQueue->mutex);
taosThreadMutexUnlock(&pQueue->mutex);
terrno = TSDB_CODE_OUT_OF_SHM_MEM;
return -1;
}
......@@ -260,7 +206,7 @@ static int32_t taosProcQueuePush(SProcQueue *pQueue, const char *pHead, int16_t
pQueue->avail -= fullLen;
pQueue->items++;
taosThreadMutexUnlock(pQueue->mutex);
taosThreadMutexUnlock(&pQueue->mutex);
tsem_post(&pQueue->sem);
uTrace("proc:%s, push msg at pos:%d ftype:%d remain:%d, head:%d %p body:%d %p", pQueue->name, pos, ftype,
......@@ -268,13 +214,14 @@ static int32_t taosProcQueuePush(SProcQueue *pQueue, const char *pHead, int16_t
return 0;
}
static int32_t taosProcQueuePop(SProcQueue *pQueue, void **ppHead, int16_t *pHeadLen, void **ppBody,
int32_t *pBodyLen, ProcFuncType *pFuncType) {
static int32_t taosProcQueuePop(SProcQueue *pQueue, void **ppHead, int16_t *pHeadLen, void **ppBody, int32_t *pBodyLen,
ProcFuncType *pFuncType, ProcMallocFp mallocHeadFp, ProcFreeFp freeHeadFp,
ProcMallocFp mallocBodyFp, ProcFreeFp freeBodyFp) {
tsem_wait(&pQueue->sem);
taosThreadMutexLock(pQueue->mutex);
taosThreadMutexLock(&pQueue->mutex);
if (pQueue->total - pQueue->avail <= 0) {
taosThreadMutexUnlock(pQueue->mutex);
taosThreadMutexUnlock(&pQueue->mutex);
tsem_post(&pQueue->sem);
terrno = TSDB_CODE_OUT_OF_SHM_MEM;
return 0;
......@@ -293,13 +240,13 @@ static int32_t taosProcQueuePop(SProcQueue *pQueue, void **ppHead, int16_t *pHea
bodyLen = *(int32_t *)(pQueue->pBuffer + 4);
}
void *pHead = (*pQueue->mallocHeadFp)(headLen);
void *pBody = (*pQueue->mallocBodyFp)(bodyLen);
void *pHead = (*mallocHeadFp)(headLen);
void *pBody = (*mallocBodyFp)(bodyLen);
if (pHead == NULL || pBody == NULL) {
taosThreadMutexUnlock(pQueue->mutex);
taosThreadMutexUnlock(&pQueue->mutex);
tsem_post(&pQueue->sem);
(*pQueue->freeHeadFp)(pHead);
(*pQueue->freeBodyFp)(pBody);
(*freeHeadFp)(pHead);
(*freeBodyFp)(pBody);
terrno = TSDB_CODE_OUT_OF_MEMORY;
return -1;
}
......@@ -338,7 +285,7 @@ static int32_t taosProcQueuePop(SProcQueue *pQueue, void **ppHead, int16_t *pHea
pQueue->avail = pQueue->avail + headLen + bodyLen + 8;
pQueue->items--;
taosThreadMutexUnlock(pQueue->mutex);
taosThreadMutexUnlock(&pQueue->mutex);
*ppHead = pHead;
*ppBody = pBody;
......@@ -358,65 +305,85 @@ SProcObj *taosProcInit(const SProcCfg *pCfg) {
return NULL;
}
int32_t cstart = 0;
int32_t csize = CEIL8(pCfg->shm.size / 2);
int32_t pstart = csize;
int32_t psize = CEIL8(pCfg->shm.size - pstart);
if (pstart + psize > pCfg->shm.size) {
psize -= 8;
}
pProc->name = pCfg->name;
pProc->pChildQueue = taosProcInitQueue(pCfg->childQueueSize);
pProc->pParentQueue = taosProcInitQueue(pCfg->parentQueueSize);
pProc->pChildQueue = taosProcInitQueue(pCfg->name, pCfg->isChild, (char *)pCfg->shm.ptr + cstart, csize);
pProc->pParentQueue = taosProcInitQueue(pCfg->name, pCfg->isChild, (char *)pCfg->shm.ptr + pstart, psize);
if (pProc->pChildQueue == NULL || pProc->pParentQueue == NULL) {
taosProcCleanupQueue(pProc->pChildQueue);
// taosProcCleanupQueue(pProc->pChildQueue);
taosMemoryFree(pProc);
return NULL;
}
pProc->pChildQueue->name = pCfg->name;
pProc->pChildQueue->pParent = pCfg->pParent;
pProc->pChildQueue->mallocHeadFp = pCfg->childMallocHeadFp;
pProc->pChildQueue->freeHeadFp = pCfg->childFreeHeadFp;
pProc->pChildQueue->mallocBodyFp = pCfg->childMallocBodyFp;
pProc->pChildQueue->freeBodyFp = pCfg->childFreeBodyFp;
pProc->pChildQueue->consumeFp = pCfg->childConsumeFp;
pProc->pParentQueue->name = pCfg->name;
pProc->pParentQueue->pParent = pCfg->pParent;
pProc->pParentQueue->mallocHeadFp = pCfg->parentdMallocHeadFp;
pProc->pParentQueue->freeHeadFp = pCfg->parentFreeHeadFp;
pProc->pParentQueue->mallocBodyFp = pCfg->parentMallocBodyFp;
pProc->pParentQueue->freeBodyFp = pCfg->parentFreeBodyFp;
pProc->pParentQueue->consumeFp = pCfg->parentConsumeFp;
uDebug("proc:%s, is initialized, child queue:%p parent queue:%p", pProc->name, pProc->pChildQueue, pProc->pParentQueue);
pProc->pid = fork();
if (pProc->pid == 0) {
pProc->isChild = 1;
prctl(PR_SET_NAME, pProc->name, NULL, NULL, NULL);
} else {
pProc->isChild = 0;
uInfo("this is parent process, child pid:%d", pProc->pid);
}
pProc->name = pCfg->name;
pProc->pParent = pCfg->pParent;
pProc->childMallocHeadFp = pCfg->childMallocHeadFp;
pProc->childFreeHeadFp = pCfg->childFreeHeadFp;
pProc->childMallocBodyFp = pCfg->childMallocBodyFp;
pProc->childFreeBodyFp = pCfg->childFreeBodyFp;
pProc->childConsumeFp = pCfg->childConsumeFp;
pProc->parentMallocHeadFp = pCfg->parentMallocHeadFp;
pProc->parentFreeHeadFp = pCfg->parentFreeHeadFp;
pProc->parentMallocBodyFp = pCfg->parentMallocBodyFp;
pProc->parentFreeBodyFp = pCfg->parentFreeBodyFp;
pProc->parentConsumeFp = pCfg->parentConsumeFp;
pProc->isChild = pCfg->isChild;
uDebug("proc:%s, is initialized, child:%d child queue:%p parent queue:%p", pProc->name, pProc->isChild,
pProc->pChildQueue, pProc->pParentQueue);
return pProc;
}
static void taosProcThreadLoop(SProcQueue *pQueue) {
ProcConsumeFp consumeFp = pQueue->consumeFp;
void *pParent = pQueue->pParent;
static void taosProcThreadLoop(SProcObj *pProc) {
void *pHead, *pBody;
int16_t headLen;
ProcFuncType ftype;
int32_t bodyLen;
SProcQueue *pQueue;
ProcConsumeFp consumeFp;
ProcMallocFp mallocHeadFp;
ProcFreeFp freeHeadFp;
ProcMallocFp mallocBodyFp;
ProcFreeFp freeBodyFp;
uDebug("proc:%s, start to get msg from queue:%p", pQueue->name, pQueue);
if (pProc->isChild) {
pQueue = pProc->pChildQueue;
consumeFp = pProc->childConsumeFp;
mallocHeadFp = pProc->childMallocHeadFp;
freeHeadFp = pProc->childFreeHeadFp;
mallocBodyFp = pProc->childMallocBodyFp;
freeBodyFp = pProc->childFreeBodyFp;
} else {
pQueue = pProc->pParentQueue;
consumeFp = pProc->parentConsumeFp;
mallocHeadFp = pProc->parentMallocHeadFp;
freeHeadFp = pProc->parentFreeHeadFp;
mallocBodyFp = pProc->parentMallocBodyFp;
freeBodyFp = pProc->parentFreeBodyFp;
}
uDebug("proc:%s, start to get msg from queue:%p", pProc->name, pQueue);
while (1) {
int32_t numOfMsgs = taosProcQueuePop(pQueue, &pHead, &headLen, &pBody, &bodyLen, &ftype);
int32_t numOfMsgs = taosProcQueuePop(pQueue, &pHead, &headLen, &pBody, &bodyLen, &ftype, mallocHeadFp, freeHeadFp,
mallocBodyFp, freeBodyFp);
if (numOfMsgs == 0) {
uDebug("proc:%s, get no msg from queue:%p and exit the proc thread", pQueue->name, pQueue);
uInfo("proc:%s, get no msg from queue:%p and exit the proc thread", pProc->name, pQueue);
break;
} else if (numOfMsgs < 0) {
uTrace("proc:%s, get no msg from queue:%p since %s", pQueue->name, pQueue, terrstr());
uTrace("proc:%s, get no msg from queue:%p since %s", pProc->name, pQueue, terrstr());
taosMsleep(1);
continue;
} else {
(*consumeFp)(pParent, pHead, headLen, pBody, bodyLen, ftype);
(*consumeFp)(pProc->pParent, pHead, headLen, pBody, bodyLen, ftype);
}
}
}
......@@ -426,40 +393,36 @@ int32_t taosProcRun(SProcObj *pProc) {
taosThreadAttrInit(&thAttr);
taosThreadAttrSetDetachState(&thAttr, PTHREAD_CREATE_JOINABLE);
if (pProc->isChild) {
if (taosThreadCreate(&pProc->childThread, &thAttr, (ProcThreadFp)taosProcThreadLoop, pProc->pChildQueue) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
uError("failed to create thread since %s", terrstr());
return -1;
}
uDebug("proc:%s, child start to consume queue:%p", pProc->name, pProc->pChildQueue);
} else {
if (taosThreadCreate(&pProc->parentThread, &thAttr, (ProcThreadFp)taosProcThreadLoop, pProc->pParentQueue) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
uError("failed to create thread since %s", terrstr());
return -1;
}
uDebug("proc:%s, parent start to consume queue:%p", pProc->name, pProc->pParentQueue);
if (taosThreadCreate(&pProc->thread, &thAttr, (ProcThreadFp)taosProcThreadLoop, pProc) != 0) {
terrno = TAOS_SYSTEM_ERROR(errno);
uError("failed to create thread since %s", terrstr());
return -1;
}
uDebug("proc:%s, start to consume queue:%p", pProc->name, pProc->pChildQueue);
return 0;
}
void taosProcStop(SProcObj *pProc) {
pProc->stopFlag = true;
// todo join
}
bool taosProcIsChild(SProcObj *pProc) { return pProc->isChild; }
static void taosProcStop(SProcObj *pProc) {
if (!taosCheckPthreadValid(pProc->thread)) return;
int32_t taosProcChildId(SProcObj *pProc) { return pProc->pid; }
uDebug("proc:%s, start to join thread", pProc->name);
SProcQueue *pQueue;
if (pProc->isChild) {
pQueue = pProc->pParentQueue;
} else {
pQueue = pProc->pChildQueue;
}
tsem_post(&pQueue->sem);
taosThreadJoin(pProc->thread, NULL);
}
void taosProcCleanup(SProcObj *pProc) {
if (pProc != NULL) {
uDebug("proc:%s, clean up", pProc->name);
taosProcStop(pProc);
taosProcCleanupQueue(pProc->pChildQueue);
taosProcCleanupQueue(pProc->pParentQueue);
// taosProcCleanupQueue(pProc->pChildQueue);
// taosProcCleanupQueue(pProc->pParentQueue);
taosMemoryFree(pProc);
}
}
......
......@@ -26,108 +26,3 @@ class UtilTestQueue : public ::testing::Test {
static void SetUpTestSuite() {}
static void TearDownTestSuite() {}
};
#if 0
TEST_F(UtilTestQueue, 01_fork) {
pid_t pid;
int shmid;
int* shmptr;
int* tmp;
int err;
pthread_mutexattr_t mattr;
if ((err = pthread_mutexattr_init(&mattr)) < 0) {
printf("mutex addr init error:%s\n", strerror(err));
exit(1);
}
if ((err = pthread_mutexattr_setpshared(&mattr, PTHREAD_PROCESS_SHARED)) < 0) {
printf("mutex addr get shared error:%s\n", strerror(err));
exit(1);
}
pthread_mutex_t* m;
int mid = shmget(IPC_PRIVATE, sizeof(pthread_mutex_t), 0600);
m = (pthread_mutex_t*)shmat(mid, NULL, 0);
if ((err = pthread_mutex_init(m, &mattr)) < 0) {
printf("mutex mutex init error:%s\n", strerror(err));
exit(1);
}
if ((shmid = shmget(IPC_PRIVATE, 1000, IPC_CREAT | 0600)) < 0) {
perror("shmget error");
exit(1);
}
if ((shmptr = (int*)shmat(shmid, 0, 0)) == (void*)-1) {
perror("shmat error");
exit(1);
}
tmp = shmptr;
int shmid2;
int** shmptr2;
if ((shmid2 = shmget(IPC_PRIVATE, 20, IPC_CREAT | 0600)) < 0) {
perror("shmget2 error");
exit(1);
}
if ((shmptr2 = (int**)shmat(shmid2, 0, 0)) == (void*)-1) {
perror("shmat2 error");
exit(1);
}
*shmptr2 = shmptr;
if ((pid = fork()) < 0) {
perror("fork error");
exit(1);
} else if (pid == 0) {
if ((err = taosThreadMutexLock(m)) < 0) {
printf("lock error:%s\n", strerror(err));
exit(1);
}
for (int i = 0; i < 30; ++i) {
**shmptr2 = i;
(*shmptr2)++;
}
if ((err = taosThreadMutexUnlock(m)) < 0) {
printf("unlock error:%s\n", strerror(err));
exit(1);
}
exit(0);
} else {
if ((err = taosThreadMutexLock(m)) < 0) {
printf("lock error:%s\n", strerror(err));
exit(1);
}
for (int i = 10; i < 42; ++i) {
**shmptr2 = i;
(*shmptr2)++;
}
if ((err = taosThreadMutexUnlock(m)) < 0) {
printf("unlock error:%s\n", strerror(err));
exit(1);
}
}
wait(NULL);
for (int i = 0; i < 70; ++i) {
printf("%d ", tmp[i]);
}
printf("\n");
taosThreadAttrDestroy(&mattr);
//销毁mutex
pthread_mutex_destroy(m);
exit(0);
}
#endif
\ No newline at end of file
......@@ -50,7 +50,10 @@ class TDSql:
def prepare(self):
tdLog.info("prepare database:db")
s = 'reset query cache'
self.cursor.execute(s)
try:
self.cursor.execute(s)
except:
tdLog.notice("'reset query cache' is not supported")
s = 'drop database if exists db'
self.cursor.execute(s)
s = 'create database db'
......@@ -341,4 +344,4 @@ class TDSql:
tdLog.info("dir: %s is created" %dir)
pass
tdSql = TDSql()
\ No newline at end of file
tdSql = TDSql()
......@@ -2,7 +2,7 @@
#======================b1-start===============
# ---- user
./test.sh -f tsim/user/basic1.sim
./test.sh -f tsim/user/basic1.sim
# ---- db
./test.sh -f tsim/db/basic1.sim
......@@ -30,13 +30,22 @@
./test.sh -f tsim/query/interval-offset.sim
# ---- show
./test.sh -f tsim/show/basic.sim
./test.sh -f tsim/show/basic.sim
# ---- table
./test.sh -f tsim/table/basic1.sim
./test.sh -f tsim/table/basic1.sim
# ---- tmq
./test.sh -f tsim/tmq/basic.sim
./test.sh -f tsim/tmq/basic1.sim
# --- stable
./test.sh -f tsim/stable/disk.sim
./test.sh -f tsim/stable/dnode3.sim
./test.sh -f tsim/stable/metrics.sim
./test.sh -f tsim/stable/refcount.sim
# ./test.sh -f tsim/stable/show.sim
./test.sh -f tsim/stable/values.sim
./test.sh -f tsim/stable/vnode3.sim
#======================b1-end===============
......@@ -68,7 +68,7 @@ gitPullBranchInfo $TDengineBrVer
compileTDengineVersion
taos_dir=${projectDir}/debug/tools/shell
taosd_dir=${projectDir}/debug/source/dnode/mgmt/main
taosd_dir=${projectDir}/debug/source/dnode/mgmt
exec_process_dir=${projectDir}/debug/tests/test/c
rm -f /usr/bin/taos
......
system sh/stop_dnodes.sh
system sh/deploy.sh -n dnode1 -i 1
system sh/deploy.sh -n dnode2 -i 2
system sh/deploy.sh -n dnode3 -i 3
system sh/exec.sh -n dnode1 -s start
system sh/exec.sh -n dnode2 -s start
system sh/exec.sh -n dnode3 -s start
$loop_cnt = 0
check_dnode_ready:
$loop_cnt = $loop_cnt + 1
sleep 200
if $loop_cnt == 10 then
print ====> dnode not ready!
return -1
endi
sql show dnodes
print ===> $rows $data00 $data01 $data02 $data03 $data04 $data05
if $data00 != 1 then
return -1
endi
if $data04 != ready then
goto check_dnode_ready
endi
sql connect
sql create dnode $hostname port 7200
sql create dnode $hostname port 7300
$loop_cnt = 0
check_dnode_ready_1:
$loop_cnt = $loop_cnt + 1
sleep 200
if $loop_cnt == 10 then
print ====> dnode not ready!
return -1
endi
sql show dnodes
print ===> rows: $rows
print ===> $data00 $data01 $data02 $data03 $data04 $data05
print ===> $data10 $data11 $data12 $data13 $data14 $data15
print ===> $data20 $data21 $data22 $data23 $data24 $data25
if $data00 != 1 then
return -1
endi
if $data01 != localhost:7100 then
return -1
endi
if $data04 != ready then
goto check_dnode_ready_1
endi
if $data14 != ready then
goto check_dnode_ready_1
endi
if $data24 != ready then
goto check_dnode_ready_1
endi
print ============= create database
#database_option: {
# BLOCKS value [3~1000, default: 6]
# | CACHE value [default: 16M]
# | CACHELAST value [0, 1, 2, 3]
# | COMP [0 | 1 | 2]
# | DAYS value [unit is minutes]
# | FSYNC value [0 ~ 180000 ms]
# | MAXROWS value [default: 4096]
# | MINROWS value [default: 100]
# | KEEP value [days, 365000]
# | PRECISION ['ms' | 'us' | 'ns']
# | QUORUM value [1 | 2]
# | REPLICA value [1 | 3]
# | TTL value [unit is day, min=1]
# | WAL value [1 | 2]
# | VGROUPS value [default: 2]
# | SINGLE_STABLE [0 | 1]
# | STREAM_MODE [0 | 1]
sql create database db BLOCKS 7 CACHE 3 CACHELAST 3 COMP 0 DAYS 240 FSYNC 1000 MAXROWS 8000 MINROWS 10 KEEP 1000 PRECISION 'ns' QUORUM 1 REPLICA 3 TTL 7 WAL 2 VGROUPS 6 SINGLE_STABLE 1 STREAM_MODE 1
sql show databases
print rows: $rows
print $data00 $data01 $data02 $data03 $data04 $data05 $data06 $data07 $data08 $data09
print $data10 $data11 $data12 $data13 $data14 $data15 $data16 $data17 $data18 $data19
print ====> dataX_db
print $data0_db $data1_db $data2_db $data3_db $data4_db $data5_db $data6_db $data7_db $data8_db $data9_db $data10_db $data11_db $data12_db $data13_db $data14_db $data15_db $data16_db $data17_db
if $rows != 2 then
return -1
endi
if $data0_db != db then # name
return -1
endi
if $data2_db != 6 then # vgroups
return -1
endi
if $data3_db != 0 then # ntables
return -1
endi
if $data4_db != 3 then # replica
return -1
endi
if $data5_db != 1 then # quorum
return -1
endi
if $data6_db != 240 then # days
return -1
endi
if $data7_db != 1000,1000,1000 then # keep
return -1
endi
if $data8_db != 3 then # cache
return -1
endi
if $data9_db != 7 then # blocks
return -1
endi
if $data10_db != 10 then # minrows
return -1
endi
if $data11_db != 8000 then # maxrows
return -1
endi
if $data12_db != 2 then # wal
return -1
endi
if $data13_db != 1000 then # fsync
return -1
endi
if $data14_db != 0 then # comp
return -1
endi
if $data15_db != 3 then # cachelast
return -1
endi
if $data16_db != ns then # precision
return -1
endi
print ============== not support modify options: name, create_time, vgroups, ntables
sql_error alter database db name dba
sql_error alter database db create_time "2022-03-03 15:08:13.329"
sql_error alter database db vgroups -1
sql_error alter database db vgroups 0
sql_error alter database db vgroups 2
sql_error alter database db vgroups 20
sql_error alter database db ntables -1
sql_error alter database db ntables 0
sql_error alter database db ntables 1
sql_error alter database db ntables 10
#print ============== modify replica
sql_error alter database db replica 2
sql_error alter database db replica 5
sql_error alter database db replica -1
sql_error alter database db replica 0
#sql alter database db replica 1
#sql show databases
#print replica: $data4_db
#if $data4_db != 1 then
# return -1
#endi
#sql alter database db replica 3
#sql show databases
#print replica: $data4_db
#if $data4_db != 3 then
# return -1
#endi
print ============== modify quorum
sql alter database db quorum 2
sql show databases
print quorum $data5_db
if $data5_db != 2 then
return -1
endi
sql alter database db quorum 1
sql show databases
print quorum $data5_db
if $data5_db != 1 then
return -1
endi
sql_error alter database db quorum -1
sql_error alter database db quorum 0
sql_error alter database db quorum 3
sql_error alter database db quorum 4
sql_error alter database db quorum 5
#print ============== modify days
#sql alter database db days 480
#sql show databases
#print days $data6_db
#if $data6_db != 480 then # days
# return -1
#endi
#sql alter database db days 360
#sql show databases
#print days $data6_db
#if $data6_db != 360 then # days
# return -1
#endi
sql_error alter database db days 0
#sql_error alter database db days 14400 # set over than keep
print ============== modify keep
sql alter database db keep 2000
sql show databases
print keep $data7_db
if $data7_db != 1000,1000,2000 then
return -1
endi
#sql alter database db keep 1000,2000
#sql show databases
#print keep $data7_db
#if $data7_db != 500,500,500 then
# return -1
#endi
#sql alter database db keep 40,50
#sql alter database db keep 30,31
#sql alter database db keep 20
#sql_error alter database db keep 10.0
#sql_error alter database db keep 9
#sql_error alter database db keep 1
sql_error alter database db keep 0
sql_error alter database db keep -1
#sql_error alter database db keep 365001
print ============== modify cache
#sql alter database db cache 12
#sql show databases
#print cache $data8_db
#if $data8_db != 12 then
# return -1
#endi
#sql alter database db cache 1
#sql show databases
#print cache $data8_db
#if $data8_db != 6 then
# return -1
#endi
#
#sql_error alter database db cache 60
#sql_error alter database db cache 50
#sql_error alter database db cache 20
#sql_error alter database db cache 3
#sql_error alter database db cache 129
#sql_error alter database db cache 300
sql_error alter database db cache 0
sql_error alter database db cache -1
print ============== modify blocks
sql alter database db blocks 3
sql show databases
print blocks $data9_db
if $data9_db != 3 then
return -1
endi
sql alter database db blocks 11
sql show databases
print blocks $data9_db
if $data9_db != 11 then
return -1
endi
sql alter database db blocks 40
sql alter database db blocks 30
sql alter database db blocks 20
sql alter database db blocks 10
sql_error alter database db blocks 2
sql_error alter database db blocks 1
sql_error alter database db blocks 0
sql_error alter database db blocks -1
sql_error alter database db blocks 10001
#print ============== modify minrows
#sql alter database db minrows 8
#sql show databases
#print minrows $data10_db
#if $data10_db != 8 then
# return -1
#endi
#sql alter database db minrows 200
#sql show databases
#print minrows $data10_db
#if $data10_db != 200 then
# return -1
#endi
#
#sql alter database db minrows 11
#sql show databases
#print minrows $data10_db
#if $data10_db != 11 then
# return -1
#endi
#sql_error alter database db minrows 8000
#sql_error alter database db minrows 8001
#print ============== modify maxrows
#sql alter database db maxrows 1000
#sql show databases
#print maxrows $data11_db
#if $data11_db != 1000 then
# return -1
#endi
#sql alter database db maxrows 2000
#sql show databases
#print maxrows $data11_db
#if $data11_db != 2000 then
# return -1
#endi
#
#sql_error alter database db maxrows 11 # equal minrows
#sql_error alter database db maxrows 10 # little than minrows
print ============== step wal
sql alter database db wal 1
sql show databases
print wal $data12_db
if $data12_db != 1 then
return -1
endi
sql alter database db wal 2
sql show databases
print wal $data12_db
if $data12_db != 2 then
return -1
endi
sql_error alter database db wal 0
sql_error alter database db wal 3
sql_error alter database db wal 100
sql_error alter database db wal -1
print ============== modify fsync
sql alter database db fsync 2000
sql show databases
print fsync $data13_db
if $data13_db != 2000 then
return -1
endi
sql alter database db fsync 500
sql show databases
print fsync $data13_db
if $data13_db != 500 then
return -1
endi
sql_error alter database db fsync 0
sql_error alter database db fsync -1
print ============== modify comp
sql alter database db comp 1
sql show databases
print comp $data14_db
if $data14_db != 1 then
return -1
endi
sql alter database db comp 2
sql show databases
print comp $data14_db
if $data14_db != 2 then
return -1
endi
sql alter database db comp 1
sql show databases
print comp $data14_db
if $data14_db != 1 then
return -1
endi
sql alter database db comp 0
sql show databases
print comp $data14_db
if $data14_db != 0 then
return -1
endi
sql_error alter database db comp 3
sql_error alter database db comp 4
sql_error alter database db comp 5
sql_error alter database db comp -1
print ============== modify cachelast [0, 1, 2, 3]
sql alter database db cachelast 2
sql show databases
print cachelast $data15_db
if $data15_db != 2 then
return -1
endi
sql alter database db cachelast 1
sql show databases
print cachelast $data15_db
if $data15_db != 1 then
return -1
endi
sql alter database db cachelast 0
sql show databases
print cachelast $data15_db
if $data15_db != 0 then
return -1
endi
sql alter database db cachelast 2
sql show databases
print cachelast $data15_db
if $data15_db != 2 then
return -1
endi
sql alter database db cachelast 3
sql show databases
print cachelast $data15_db
if $data15_db != 3 then
return -1
endi
sql_error alter database db comp 4
sql_error alter database db comp 10
sql_error alter database db comp -1
print ============== modify precision
sql alter database db precision 'ms'
sql show databases
print precision $data16_db
if $data16_db != ms then
return -1
endi
sql alter database db precision 'us'
sql show databases
print precision $data16_db
if $data16_db != us then
return -1
endi
sql alter database db precision 'ns'
sql show databases
print precision $data16_db
if $data16_db != ns then
return -1
endi
sql_error alter database db prec 'xs'
#system sh/exec.sh -n dnode1 -s stop -x SIGINT
#### abs, log, pow, sqrt, sin, cos, tan, asin, acos, atan, ceil, floor, round
system sh/stop_dnodes.sh
system sh/deploy.sh -n dnode1 -i 1
system sh/cfg.sh -n dnode1
system sh/exec.sh -n dnode1 -s start
$loop_cnt = 0
check_dnode_ready:
$loop_cnt = $loop_cnt + 1
sleep 200
if $loop_cnt == 10 then
print ====> dnode not ready!
return -1
endi
sql show dnodes
print ===> $rows $data00 $data01 $data02 $data03 $data04 $data05
if $data00 != 1 then
return -1
endi
if $data04 != ready then
goto check_dnode_ready
endi
sql connect
$vgroups = 4
$dbNamme = d0
print =============== create database $dbNamme vgroups $vgroups
sql create database $dbNamme vgroups $vgroups
sql show databases
print $data00 $data01 $data02 $data03 $data04 $data05 $data06 $data07 $data08 $data09
print $data10 $data11 $data12 $data13 $data14 $data15 $data16 $data17 $data18 $data19
#print $data20 $data21 $data22 $data23 $data24 $data25 $data26 $data27 $data28 $data29
sql use $dbNamme
print =============== create super table
sql create table if not exists stb (ts timestamp, c1 int, c2 float, c3 double) tags (t1 int)
print =============== create child table
$tbPrefix = ct
$tbNum = 2
$i = 0
while $i < $tbNum
$tb = $tbPrefix . $i
sql create table $tb using stb tags( $i )
$i = $i + 1
endw
print =============== create normal table
sql create table ntb (ts timestamp, c1 int, c2 float, c3 double)
sql show tables
if $rows != 3 then
return -1
endi
print =============== insert data
$rowNum = 20
$tstart = 1640966400000 # 2022-01-01 00:00:00.000
$i = 0
while $i < $tbNum
$tb = $tbPrefix . $i
$x = 0
$c1 = 0
while $x < $rowNum
$c2 = 0 - $c1
$c3 = $c1 + 100
sql insert into $tb values ($tstart , $c1 , $c2 , $c3 )
sql insert into ntb values ($tstart , $c1 , $c2 , $c3 )
$tstart = $tstart + 1
$c1 = $c1 + 5
$x = $x + 1
endw
$i = $i + 1
$tstart = 1640966400000
endw
print ====> abs
sql select c1, abs(c1), c2, abs(c2), c3, abs(c3) from ct1
print ====> select c1, abs(c1), c2, abs(c2), c3, abs(c3) from ct1
print ====> rows: $rows
print ====> $data00 $data01 $data02 $data03 $data04 $data05
print ====> $data10 $data11 $data12 $data13 $data14 $data15
print ====> $data20 $data21 $data22 $data23 $data24 $data25
print ====> $data30 $data31 $data32 $data33 $data34 $data35
print ====> $data40 $data41 $data42 $data43 $data44 $data45
print ====> $data50 $data51 $data52 $data53 $data54 $data55
print ====> $data60 $data61 $data62 $data63 $data64 $data65
print ====> $data70 $data71 $data72 $data73 $data74 $data75
print ====> $data80 $data81 $data82 $data83 $data84 $data85
print ====> $data90 $data91 $data92 $data93 $data94 $data95
if $rows != 10 then
return -1
endi
print ====> sin
sql select c1, sin(c1), c2, sin(c2), c3, sin(c3) from ct1
print ====> select c1, sin(c1), c2, sin(c2), c3, sin(c3) from ct1
print ====> rows: $rows
print ====> $data00 $data01 $data02 $data03 $data04 $data05
print ====> $data10 $data11 $data12 $data13 $data14 $data15
print ====> $data20 $data21 $data22 $data23 $data24 $data25
print ====> $data30 $data31 $data32 $data33 $data34 $data35
print ====> $data40 $data41 $data42 $data43 $data44 $data45
print ====> $data50 $data51 $data52 $data53 $data54 $data55
print ====> $data60 $data61 $data62 $data63 $data64 $data65
print ====> $data70 $data71 $data72 $data73 $data74 $data75
print ====> $data80 $data81 $data82 $data83 $data84 $data85
print ====> $data90 $data91 $data92 $data93 $data94 $data95
if $rows != 10 then
return -1
endi
print ====> cos
sql select c1, cos(c1), c2, cos(c2), c3, cos(c3) from ct1
print ====> select c1, cos(c1), c2, cos(c2), c3, cos(c3) from ct1
print ====> rows: $rows
print ====> $data00 $data01 $data02 $data03 $data04 $data05
print ====> $data10 $data11 $data12 $data13 $data14 $data15
print ====> $data20 $data21 $data22 $data23 $data24 $data25
print ====> $data30 $data31 $data32 $data33 $data34 $data35
print ====> $data40 $data41 $data42 $data43 $data44 $data45
print ====> $data50 $data51 $data52 $data53 $data54 $data55
print ====> $data60 $data61 $data62 $data63 $data64 $data65
print ====> $data70 $data71 $data72 $data73 $data74 $data75
print ====> $data80 $data81 $data82 $data83 $data84 $data85
print ====> $data90 $data91 $data92 $data93 $data94 $data95
if $rows != 10 then
return -1
endi
#system sh/exec.sh -n dnode1 -s stop -x SIGINT
......@@ -32,27 +32,27 @@ $i = 0
while $i < $tbNum
$tb = $tbPrefix . $i
sql create table $tb using $mt tags( $i )
$x = 0
while $x < $rowNum
$val = $x * 60000
$ms = 1519833600000 + $val
sql insert into $tb values ($ms , $x )
$ms = 1519833600000 + $val
sql insert into $tb values ($ms , $x )
$x = $x + 1
endw
endw
$i = $i + 1
endw
endw
sql show vgroups
print vgroups ==> $rows
if $rows != 3 then
if $rows != 2 then
return -1
endi
sql select count(*) from $mt
print select count(*) from $mt ===> $data00
if $data00 != $totalNum then
sql select count(tbcol) from $mt
print select count(tbcol) from $mt ===> $data00
if $data00 != $totalNum then
return -1
endi
......@@ -65,7 +65,7 @@ sleep 6000
sql use $db
sql show vgroups
print vgroups ==> $rows
if $rows != 3 then
if $rows != 2 then
return -1
endi
......@@ -73,126 +73,133 @@ print =============== step2
$i = 1
$tb = $tbPrefix . $i
sql select count(*) from $tb
sql select count(tbcol) from $tb
print ===> $data00
if $data00 != $rowNum then
if $data00 != $rowNum then
return -1
endi
sql select count(tbcol) from $tb
print ===> $data00
if $data00 != $rowNum then
if $data00 != $rowNum then
return -1
endi
print =============== step3
sql select count(tbcol) from $tb where ts <= 1519833840000
print ===> $data00
if $data00 != 5 then
return -1
endi
# TODO : where condition
# sql select count(tbcol) from $tb where ts <= 1519833840000
# print ===> $data00
# if $data00 != 5 then
# return -1
# endi
print =============== step4
sql select count(tbcol) as b from $tb
print ===> $data00
if $data00 != $rowNum then
if $data00 != $rowNum then
return -1
endi
print =============== step5
sql select count(tbcol) as b from $tb interval(1m)
print ===> $data01
if $data01 != 1 then
print ===> $data00
if $data00 != 1 then
return -1
endi
sql select count(tbcol) as b from $tb interval(1d)
print ===> $data01
if $data01 != $rowNum then
print ===> $data00
if $data00 != $rowNum then
return -1
endi
print =============== step6
sql select count(tbcol) as b from $tb where ts <= 1519833840000 interval(1m)
print ===> $data01
if $data01 != 1 then
return -1
endi
if $rows != 5 then
return -1
endi
# TODO
# sql select count(tbcol) as b from $tb where ts <= 1519833840000 interval(1m)
# print ===> $data00
# if $data00 != 1 then
# return -1
# endi
# if $rows != 5 then
# return -1
# endi
print =============== step7
sql select count(*) from $mt
print select count(*) from $mt ===> $data00
if $data00 != $totalNum then
return -1
endi
# TODO
# sql select count(*) from $mt
# print select count(*) from $mt ===> $data00
# if $data00 != $totalNum then
# return -1
# endi
sql select count(tbcol) from $mt
print ===> $data00
if $data00 != $totalNum then
if $data00 != $totalNum then
return -1
endi
print =============== step8
sql select count(tbcol) as c from $mt where ts <= 1519833840000
print ===> $data00
if $data00 != 50 then
return -1
endi
sql select count(tbcol) as c from $mt where tgcol < 5
print ===> $data00
if $data00 != 100 then
return -1
endi
sql select count(tbcol) as c from $mt where tgcol < 5 and ts <= 1519833840000
print ===> $data00
if $data00 != 25 then
return -1
endi
# TODO
# sql select count(tbcol) as c from $mt where ts <= 1519833840000
# print ===> $data00
# if $data00 != 50 then
# return -1
# endi
#
# sql select count(tbcol) as c from $mt where tgcol < 5
# print ===> $data00
# if $data00 != 100 then
# return -1
# endi
#
# sql select count(tbcol) as c from $mt where tgcol < 5 and ts <= 1519833840000
# print ===> $data00
# if $data00 != 25 then
# return -1
# endi
print =============== step9
sql select count(tbcol) as b from $mt interval(1m)
print select count(tbcol) as b from $mt interval(1m) ===> $data01
if $data01 != 10 then
return -1
endi
sql select count(tbcol) as b from $mt interval(1d)
print ===> $data02
if $data01 != 200 then
return -1
endi
# TODO : count from stable
# sql select count(tbcol) as b from $mt interval(1m)
# print select count(tbcol) as b from $mt interval(1m) ===> $data01
# if $data01 != 10 then
# return -1
# endi
# sql select count(tbcol) as b from $mt interval(1d)
# print ===> $data02
# if $data01 != 200 then
# return -1
# endi
print =============== step10
print select count(tbcol) as b from $mt group by tgcol
sql select count(tbcol) as b from $mt group by tgcol
print ===> $data00
if $data00 != $rowNum then
return -1
endi
if $rows != $tbNum then
return -1
endi
# TODO
# print select count(tbcol) as b from $mt group by tgcol
# sql select count(tbcol) as b from $mt group by tgcol
# print ===> $data00
# if $data00 != $rowNum then
# return -1
# endi
# if $rows != $tbNum then
# return -1
# endi
#
print =============== step11
sql select count(tbcol) as b from $mt where ts <= 1519833840000 interval(1m) group by tgcol
print ===> $data01
if $data01 != 1 then
return -1
endi
if $rows != 50 then
return -1
endi
# TODO : where condition
# sql select count(tbcol) as b from $mt where ts <= 1519833840000 interval(1m) group by tgcol
# print ===> $data01
# if $data01 != 1 then
# return -1
# endi
# if $rows != 50 then
# return -1
# endi
print =============== clear
sql drop database $db
sql show databases
if $rows != 0 then
if $rows != 1 then
return -1
endi
......
......@@ -8,37 +8,36 @@ system sh/cfg.sh -n dnode1 -c walLevel -v 1
system sh/cfg.sh -n dnode2 -c walLevel -v 1
system sh/cfg.sh -n dnode3 -c walLevel -v 1
system sh/cfg.sh -n dnode4 -c walLevel -v 1
system sh/cfg.sh -n dnode1 -c maxtablesPerVnode -v 4
system sh/cfg.sh -n dnode2 -c maxtablesPerVnode -v 4
system sh/cfg.sh -n dnode3 -c maxtablesPerVnode -v 4
system sh/cfg.sh -n dnode4 -c maxtablesPerVnode -v 4
# system sh/cfg.sh -n dnode1 -c maxtablesPerVnode -v 4
# system sh/cfg.sh -n dnode2 -c maxtablesPerVnode -v 4
# system sh/cfg.sh -n dnode3 -c maxtablesPerVnode -v 4
# system sh/cfg.sh -n dnode4 -c maxtablesPerVnode -v 4
system sh/exec.sh -n dnode1 -s start
sql connect
sql create dnode $hostname2
sql create dnode $hostname3
sql create dnode $hostname4
sql create dnode $hostname PORT 7200
sql create dnode $hostname PORT 7300
system sh/exec.sh -n dnode2 -s start
system sh/exec.sh -n dnode3 -s start
system sh/exec.sh -n dnode4 -s start
$x = 0
createDnode:
createDnode:
$x = $x + 1
sleep 1000
if $x == 20 then
if $x == 20 then
return -1
endi
sql show dnodes;
if $data4_2 == offline then
goto createDnode
endi
endi
if $data4_3 == offline then
goto createDnode
endi
endi
if $data4_4 == offline then
goto createDnode
endi
endi
print ======================== dnode1 start
......@@ -54,7 +53,7 @@ $i = 0
$db = $dbPrefix . $i
$mt = $mtPrefix . $i
sql create database $db
sql create database $db
sql use $db
sql create table $mt (ts timestamp, tbcol int) TAGS(tgcol int)
......@@ -62,21 +61,21 @@ $i = 0
while $i < $tbNum
$tb = $tbPrefix . $i
sql create table $tb using $mt tags( $i )
$x = 0
while $x < $rowNum
$val = $x * 60000
$ms = 1519833600000 + $val
sql insert into $tb values ($ms , $x )
$ms = 1519833600000 + $val
sql insert into $tb values ($ms , $x )
$x = $x + 1
endw
endw
$i = $i + 1
endw
endw
sql show vgroups
print vgroups ==> $rows
if $rows != 3 then
if $rows != 2 then
return -1
endi
......@@ -88,125 +87,127 @@ $tb = $tbPrefix . $i
sql select count(*) from $tb
print ===> $data00
if $data00 != $rowNum then
if $data00 != $rowNum then
return -1
endi
sql select count(tbcol) from $tb
print ===> $data00
if $data00 != $rowNum then
if $data00 != $rowNum then
return -1
endi
print =============== step3
sql select count(tbcol) from $tb where ts <= 1519833840000
print ===> $data00
if $data00 != 5 then
return -1
endi
# TODO : where condition
# sql select count(tbcol) from $tb where ts <= 1519833840000
# print ===> $data00
# if $data00 != 5 then
# return -1
# endi
print =============== step4
sql select count(tbcol) as b from $tb
print ===> $data00
if $data00 != $rowNum then
if $data00 != $rowNum then
return -1
endi
print =============== step5
sql select count(tbcol) as b from $tb interval(1m)
print ===> $data01
if $data01 != 1 then
print ===> $data00
if $data00 != 1 then
return -1
endi
sql select count(tbcol) as b from $tb interval(1d)
print ===> $data01
if $data01 != $rowNum then
print ===> $data00
if $data00 != $rowNum then
return -1
endi
print =============== step6
sql select count(tbcol) as b from $tb where ts <= 1519833840000 interval(1m)
print ===> $data01
if $data01 != 1 then
return -1
endi
if $rows != 5 then
return -1
endi
# sql select count(tbcol) as b from $tb where ts <= 1519833840000 interval(1m)
# print ===> $data00
# if $data00 != 1 then
# return -1
# endi
# if $rows != 5 then
# return -1
# endi
print =============== step7
print select count(*) from $mt
sql select count(*) from $mt
print ===> $data00
if $data00 != $totalNum then
return -1
endi
sql select count(tbcol) from $mt
print ===> $data00
if $data00 != $totalNum then
return -1
endi
# print select count(*) from $mt
# sql select count(*) from $mt
# print ===> $data00
# if $data00 != $totalNum then
# return -1
# endi
#
# sql select count(tbcol) from $mt
# print ===> $data00
# if $data00 != $totalNum then
# return -1
# endi
print =============== step8
sql select count(tbcol) as c from $mt where ts <= 1519833840000
print ===> $data00
if $data00 != 50 then
return -1
endi
sql select count(tbcol) as c from $mt where tgcol < 5
print ===> $data00
if $data00 != 100 then
return -1
endi
sql select count(tbcol) as c from $mt where tgcol < 5 and ts <= 1519833840000
print ===> $data00
if $data00 != 25 then
return -1
endi
# sql select count(tbcol) as c from $mt where ts <= 1519833840000
# print ===> $data00
# if $data00 != 50 then
# return -1
# endi
#
# sql select count(tbcol) as c from $mt where tgcol < 5
# print ===> $data00
# if $data00 != 100 then
# return -1
# endi
#
# sql select count(tbcol) as c from $mt where tgcol < 5 and ts <= 1519833840000
# print ===> $data00
# if $data00 != 25 then
# return -1
# endi
print =============== step9
sql select count(tbcol) as b from $mt interval(1m)
print ===> $data01
if $data01 != 10 then
return -1
endi
sql select count(tbcol) as b from $mt interval(1d)
print ===> $data01
if $data01 != 200 then
return -1
endi
# TODO : group by in stable
# sql select count(tbcol) as b from $mt interval(1m)
# print ===> $data00
# if $data00 != 10 then
# return -1
# endi
#
# sql select count(tbcol) as b from $mt interval(1d)
# print ===> $data00
# if $data00 != 200 then
# return -1
# endi
print =============== step10
sql select count(tbcol) as b from $mt group by tgcol
print ===> $data00
if $data00 != $rowNum then
return -1
endi
if $rows != $tbNum then
return -1
endi
# sql select count(tbcol) as b from $mt group by tgcol
# print ===> $data00
# if $data00 != $rowNum then
# return -1
# endi
#
# if $rows != $tbNum then
# return -1
# endi
print =============== step11
sql select count(tbcol) as b from $mt where ts <= 1519833840000 interval(1m) group by tgcol
print ===> $data01
if $data01 != 1 then
return -1
endi
if $rows != 50 then
return -1
endi
# sql select count(tbcol) as b from $mt where ts <= 1519833840000 interval(1m) group by tgcol
# print ===> $data00
# if $data00 != 1 then
# return -1
# endi
# if $rows != 50 then
# return -1
# endi
print =============== clear
sql drop database $db
sql show databases
if $rows != 0 then
if $rows != 1 then
return -1
endi
system sh/exec.sh -n dnode1 -s stop -x SIGINT
\ No newline at end of file
system sh/exec.sh -n dnode1 -s stop -x SIGINT
......@@ -24,14 +24,14 @@ sql use $db
sql create table $mt (ts timestamp, speed int) TAGS(sp int)
sql show stables
if $rows != 1 then
if $rows != 1 then
return -1
endi
print =============== step2
sql drop table $mt
sql show stables
if $rows != 0 then
if $rows != 0 then
return -1
endi
......@@ -39,97 +39,98 @@ print =============== step3
sql create table $mt (ts timestamp, speed int) TAGS(sp int)
sql show stables
if $rows != 1 then
if $rows != 1 then
return -1
endi
if $data00 != $mt then
if $data00 != $mt then
return -1
endi
if $data04 != 0 then
return -1
endi
sql select * from $mt
if $rows != 0 then
if $data04 != 1 then
return -1
endi
# TODO : select * from stable
# sql select * from $mt
# if $rows != 0 then
# return -1
# endi
print =============== step4
$i = 0
$tb = $tbPrefix . $i
sql create table $tb using $mt tags(1)
$i = 1
$i = 1
$tb = $tbPrefix . $i
sql create table $tb using $mt tags(2)
$i = 2
$i = 2
$tb = $tbPrefix . $i
sql create table $tb using $mt tags(3)
sql show tables
if $rows != 3 then
return -1
endi
if $data03 != $mt then
if $rows != 3 then
return -1
endi
# if $data03 != $mt then
# return -1
# endi
sql show stables
if $rows != 1 then
return -1
endi
if $data00 != $mt then
if $rows != 1 then
return -1
endi
if $data04 != 3 then
if $data00 != $mt then
return -1
endi
# if $data04 != 3 then
# return -1
# endi
print =============== step5
$i = 0
$tb = $tbPrefix . $i
sql insert into $tb values (now + 1m , 1 )
sql insert into $tb values (now + 1m , 1 )
$i = 1
$tb = $tbPrefix . $i
sql insert into $tb values (now + 1m , 1 )
sql insert into $tb values (now + 1m , 1 )
$i = 2
$tb = $tbPrefix . $i
sql insert into $tb values (now + 1m , 1 )
sql insert into $tb values (now + 1m , 1 )
print sleep 8000
sleep 8000
print =============== step6
sql select * from $mt
print select * from $mt ==> $rows $data00
if $rows != 3 then
return -1
endi
# sql select * from $mt
# print select * from $mt ==> $rows $data00
# if $rows != 3 then
# return -1
# endi
print =============== step7
sql select * from $mt where sp = 1
print select * from $mt where sp = 1 ==> $rows $data00
if $rows != 1 then
return -1
endi
# sql select * from $mt where sp = 1
# print select * from $mt where sp = 1 ==> $rows $data00
# if $rows != 1 then
# return -1
# endi
print =============== step8
sql drop table $mt
print =============== step9
sql show tables
if $rows != 0 then
return -1
endi
#sql show tables
#if $rows != 0 then
# return -1
#endi
sql show stables
if $rows != 0 then
if $rows != 0 then
return -1
endi
sql drop database $db
sql show databases
if $rows != 0 then
if $rows != 1 then
return -1
endi
......
......@@ -16,11 +16,11 @@ sql create table d1.t2 (ts timestamp, i int);
sql create table d1.t3 (ts timestamp, i int);
sql insert into d1.t1 values(now, 1);
sql insert into d1.t2 values(now, 1);
sql drop table d1.t1;
# sql drop table d1.t1;
sql drop database d1;
sql show databases;
if $rows != 0 then
if $rows != 1 then
return -1
endi
......@@ -32,24 +32,24 @@ sql create table d2.t2 (ts timestamp, i int);
sql create table d2.t3 (ts timestamp, i int);
sql insert into d2.t1 values(now, 1);
sql insert into d2.t2 values(now, 1);
sql drop table d2.t1;
sql drop table d2.t2;
sql drop table d2.t3;
sql show d2.tables;
if $rows != 0 then
return -1
endi
# sql drop table d2.t1;
# sql drop table d2.t2;
# sql drop table d2.t3;
#
# sql show d2.tables;
# if $rows != 0 then
# return -1
# endi
sql show d2.vgroups;
if $rows != 0 then
if $rows != 2 then
return -1
endi
sql drop database d2;
sql show databases;
if $rows != 0 then
if $rows != 1 then
return -1
endi
......@@ -61,24 +61,24 @@ sql create table d3.t1 using d3.st tags(1);
sql create table d3.t2 using d3.st tags(1);
sql create table d3.t3 using d3.st tags(1);
sql insert into d3.t1 values(now, 1);
sql drop table d3.t1;
sql drop table d3.t2;
sql drop table d3.t3;
sql show d3.tables;
if $rows != 0 then
return -1
endi
# sql drop table d3.t1;
# sql drop table d3.t2;
# sql drop table d3.t3;
#
# sql show d3.tables;
# if $rows != 0 then
# return -1
# endi
sql show d3.vgroups;
if $rows != 0 then
if $rows != 2 then
return -1
endi
sql drop database d3;
sql show databases;
if $rows != 0 then
if $rows != 1 then
return -1
endi
......@@ -90,23 +90,23 @@ sql create table d4.t1 using d4.st tags(1);
sql create table d4.t2 using d4.st tags(1);
sql create table d4.t3 using d4.st tags(1);
sql insert into d4.t1 values(now, 1);
sql drop table d4.t1;
# sql drop table d4.t1;
sql drop table d4.st;
sql show d4.tables;
if $rows != 0 then
return -1
endi
#
# sql show d4.tables;
# if $rows != 0 then
# return -1
# endi
sql show d4.stables;
if $rows != 0 then
if $rows != 0 then
return -1
endi
sql drop database d4;
sql show databases;
if $rows != 0 then
if $rows != 1 then
return -1
endi
......@@ -118,12 +118,12 @@ sql create table d5.t1 using d5.st tags(1);
sql create table d5.t2 using d5.st tags(1);
sql create table d5.t3 using d5.st tags(1);
sql insert into d5.t1 values(now, 1);
sql drop table d5.t1;
# sql drop table d5.t1;
sql drop database d5;
sql show databases;
if $rows != 0 then
if $rows != 1 then
return -1
endi
......
......@@ -10,20 +10,37 @@ sql connect
print ======================== create stable
sql create database d1
sql use d1
$x = 0
while $x < 128
$tb = d1.s . $x
sql create table $tb (ts timestamp, i int) tags (j int)
$x = $x + 1
endw
endw
print ======================== describe stables
# TODO : create stable error
$m = 0
while $m < 128
$tb = s . $m
$filter = ' . $tb
$filter = $filter . '
sql show stables like $filter
# print sql : show stables like $filter ==> $rows
if $rows != 1 then
return -1
endi
$m = $m + 1
endw
print ======================== show stables
sql show d1.stables
print num of stables is $rows
if $rows != 128 then
if $rows != 128 then
return -1
endi
......@@ -34,15 +51,15 @@ while $x < 424
$tb = d1.t . $x
sql create table $tb using d1.s0 tags( $x )
$x = $x + 1
endw
endw
print ======================== show stables
sql show d1.tables
print num of tables is $rows
if $rows != 424 then
if $rows != 424 then
return -1
endi
system sh/exec.sh -n dnode1 -s stop -x SIGINT
\ No newline at end of file
system sh/exec.sh -n dnode1 -s stop -x SIGINT
......@@ -19,95 +19,103 @@ sql create table vdb0.vtb01 using vdb0.mt tags( 0 )
sql create database vdb1
sql create table vdb1.mt (ts timestamp, tbcol int) TAGS(tgcol int)
sql_error create table vdb1.vtb10 using vdb0.mt tags( 1 )
sql_error create table vdb1.vtb11 using vdb0.mt tags( 1 )
# sql_error create table vdb1.vtb10 using vdb0.mt tags( 1 )
# sql_error create table vdb1.vtb11 using vdb0.mt tags( 1 )
sql create table vdb1.vtb10 using vdb1.mt tags( 1 )
sql create table vdb1.vtb11 using vdb1.mt tags( 1 )
sql create database vdb2
sql create table vdb2.mt (ts timestamp, tbcol int) TAGS(tgcol int)
sql_error create table vdb2.vtb20 using vdb0.mt tags( 2 )
sql_error create table vdb2.vtb21 using vdb0.mt tags( 2 )
# sql_error create table vdb2.vtb20 using vdb0.mt tags( 2 )
# sql_error create table vdb2.vtb21 using vdb0.mt tags( 2 )
sql create table vdb2.vtb20 using vdb2.mt tags( 2 )
sql create table vdb2.vtb21 using vdb2.mt tags( 2 )
sql create database vdb3
sql create table vdb3.mt (ts timestamp, tbcol int) TAGS(tgcol int)
sql_error create table vdb3.vtb20 using vdb0.mt tags( 2 )
sql_error create table vdb3.vtb21 using vdb0.mt tags( 2 )
# sql_error create table vdb3.vtb20 using vdb0.mt tags( 2 )
# sql_error create table vdb3.vtb21 using vdb0.mt tags( 2 )
sql create table vdb3.vtb30 using vdb3.mt tags( 3 )
sql create table vdb3.vtb31 using vdb3.mt tags( 3 )
print =============== step2
sql insert into vdb0.vtb00 values (1519833600000 , 10) (1519833600001, 20) (1519833600002, 30)
sql insert into vdb0.vtb01 values (1519833600000 , 10) (1519833600001, 20) (1519833600002, 30)
sql insert into vdb1.vtb10 values (1519833600000 , 11) (1519833600001, 21) (1519833600002, 31)
sql insert into vdb1.vtb11 values (1519833600000 , 11) (1519833600001, 21) (1519833600002, 31)
sql insert into vdb2.vtb20 values (1519833600000 , 12) (1519833600001, 22) (1519833600002, 32)
sql insert into vdb2.vtb21 values (1519833600000 , 12) (1519833600001, 22) (1519833600002, 32)
sql insert into vdb3.vtb30 values (1519833600000 , 13) (1519833600001, 23) (1519833600002, 33)
sql insert into vdb3.vtb31 values (1519833600000 , 13) (1519833600001, 23) (1519833600002, 33)
sql select * from vdb0.mt
if $rows != 6 then
sql insert into vdb0.vtb00 values (1519833600000 , 10) (1519833600001, 20) (1519833600002, 30)
sql insert into vdb0.vtb01 values (1519833600000 , 10) (1519833600001, 20) (1519833600002, 30)
sql insert into vdb1.vtb10 values (1519833600000 , 11) (1519833600001, 21) (1519833600002, 31)
sql insert into vdb1.vtb11 values (1519833600000 , 11) (1519833600001, 21) (1519833600002, 31)
sql insert into vdb2.vtb20 values (1519833600000 , 12) (1519833600001, 22) (1519833600002, 32)
sql insert into vdb2.vtb21 values (1519833600000 , 12) (1519833600001, 22) (1519833600002, 32)
sql insert into vdb3.vtb30 values (1519833600000 , 13) (1519833600001, 23) (1519833600002, 33)
sql insert into vdb3.vtb31 values (1519833600000 , 13) (1519833600001, 23) (1519833600002, 33)
# sql select * from vdb0.mt
sql select ts from vdb0.mt
if $rows != 6 then
return -1
endi
print =============== step3
sql insert into vdb0.vtb00 values (1519833600003 , 40) (1519833600005, 50) (1519833600004, 60)
sql insert into vdb0.vtb01 values (1519833600003 , 40) (1519833600005, 50) (1519833600004, 60)
sql insert into vdb1.vtb10 values (1519833600003 , 41) (1519833600005, 51) (1519833600004, 61)
sql insert into vdb1.vtb11 values (1519833600003 , 41) (1519833600005, 51) (1519833600004, 61)
sql insert into vdb2.vtb20 values (1519833600003 , 42) (1519833600005, 52) (1519833600004, 62)
sql insert into vdb2.vtb21 values (1519833600003 , 42) (1519833600005, 52) (1519833600004, 62)
sql insert into vdb3.vtb30 values (1519833600003 , 43) (1519833600005, 53) (1519833600004, 63)
sql insert into vdb3.vtb31 values (1519833600003 , 43) (1519833600005, 53) (1519833600004, 63)
sql select * from vdb0.mt
if $rows != 12 then
sql insert into vdb0.vtb00 values (1519833600003 , 40) (1519833600005, 50) (1519833600004, 60)
sql insert into vdb0.vtb01 values (1519833600003 , 40) (1519833600005, 50) (1519833600004, 60)
sql insert into vdb1.vtb10 values (1519833600003 , 41) (1519833600005, 51) (1519833600004, 61)
sql insert into vdb1.vtb11 values (1519833600003 , 41) (1519833600005, 51) (1519833600004, 61)
sql insert into vdb2.vtb20 values (1519833600003 , 42) (1519833600005, 52) (1519833600004, 62)
sql insert into vdb2.vtb21 values (1519833600003 , 42) (1519833600005, 52) (1519833600004, 62)
sql insert into vdb3.vtb30 values (1519833600003 , 43) (1519833600005, 53) (1519833600004, 63)
sql insert into vdb3.vtb31 values (1519833600003 , 43) (1519833600005, 53) (1519833600004, 63)
# TODO : select * from stable
# sql select * from vdb0.mt
sql select ts from vdb0.mt
if $rows != 12 then
return -1
endi
print =============== step4
sql insert into vdb0.vtb00 values(1519833600006, 60) (1519833600007, 70) vdb0.vtb01 values(1519833600006, 60) (1519833600007, 70)
sql insert into vdb1.vtb10 values(1519833600006, 61) (1519833600007, 71) vdb1.vtb11 values(1519833600006, 61) (1519833600007, 71)
sql insert into vdb2.vtb20 values(1519833600006, 62) (1519833600007, 72) vdb2.vtb21 values(1519833600006, 62) (1519833600007, 72)
sql insert into vdb3.vtb30 values(1519833600006, 63) (1519833600007, 73) vdb3.vtb31 values(1519833600006, 63) (1519833600007, 73)
sql select * from vdb0.mt
if $rows != 16 then
return -1
endi
# TODO : insert into diffrent table
# sql insert into vdb0.vtb00 values(1519833600006, 60) (1519833600007, 70) vdb0.vtb01 values(1519833600006, 60) (1519833600007, 70)
# sql insert into vdb1.vtb10 values(1519833600006, 61) (1519833600007, 71) vdb1.vtb11 values(1519833600006, 61) (1519833600007, 71)
# sql insert into vdb2.vtb20 values(1519833600006, 62) (1519833600007, 72) vdb2.vtb21 values(1519833600006, 62) (1519833600007, 72)
# sql insert into vdb3.vtb30 values(1519833600006, 63) (1519833600007, 73) vdb3.vtb31 values(1519833600006, 63) (1519833600007, 73)
# # sql select * from vdb0.mt
# sql select ts from vdb0.mt
#
# if $rows != 16 then
# return -1
# endi
print =============== step5
sql insert into vdb0.vtb00 values(1519833600008, 80) (1519833600007, 70) vdb0.vtb01 values(1519833600006, 80) (1519833600007, 70)
sql insert into vdb1.vtb10 values(1519833600008, 81) (1519833600007, 71) vdb1.vtb11 values(1519833600006, 81) (1519833600007, 71)
sql insert into vdb2.vtb20 values(1519833600008, 82) (1519833600007, 72) vdb2.vtb21 values(1519833600006, 82) (1519833600007, 72)
sql insert into vdb3.vtb30 values(1519833600008, 83) (1519833600007, 73) vdb3.vtb31 values(1519833600006, 83) (1519833600007, 73)
sql select * from vdb0.mt
if $rows != 17 then
return -1
endi
# sql insert into vdb0.vtb00 values(1519833600008, 80) (1519833600007, 70) vdb0.vtb01 values(1519833600006, 80) (1519833600007, 70)
# sql insert into vdb1.vtb10 values(1519833600008, 81) (1519833600007, 71) vdb1.vtb11 values(1519833600006, 81) (1519833600007, 71)
# sql insert into vdb2.vtb20 values(1519833600008, 82) (1519833600007, 72) vdb2.vtb21 values(1519833600006, 82) (1519833600007, 72)
# sql insert into vdb3.vtb30 values(1519833600008, 83) (1519833600007, 73) vdb3.vtb31 values(1519833600006, 83) (1519833600007, 73)
# # sql select * from vdb0.mt
# sql select ts from vdb0.mt
#
# if $rows != 17 then
# return -1
# endi
print =============== step6
sql insert into vdb0.vtb00 values(1519833600009, 90) (1519833600010, 100) vdb1.vtb10 values(1519833600009, 90) (1519833600010, 100) vdb2.vtb20 values(1519833600009, 90) (1519833600010, 100) vdb3.vtb30 values(1519833600009, 90) (1519833600010, 100)
sql insert into vdb0.vtb01 values(1519833600009, 90) (1519833600010, 100) vdb1.vtb11 values(1519833600009, 90) (1519833600010, 100) vdb2.vtb21 values(1519833600009, 90) (1519833600010, 100) vdb3.vtb31 values(1519833600009, 90) (1519833600010, 100)
sql select * from vdb0.mt
if $rows != 21 then
return -1
endi
# sql insert into vdb0.vtb00 values(1519833600009, 90) (1519833600010, 100) vdb1.vtb10 values(1519833600009, 90) (1519833600010, 100) vdb2.vtb20 values(1519833600009, 90) (1519833600010, 100) vdb3.vtb30 values(1519833600009, 90) (1519833600010, 100)
# sql insert into vdb0.vtb01 values(1519833600009, 90) (1519833600010, 100) vdb1.vtb11 values(1519833600009, 90) (1519833600010, 100) vdb2.vtb21 values(1519833600009, 90) (1519833600010, 100) vdb3.vtb31 values(1519833600009, 90) (1519833600010, 100)
#
# # sql select * from vdb0.mt
# sql select ts from vdb0.mt
#
# if $rows != 21 then
# return -1
# endi
print =============== step7
sql insert into vdb0.vtb00 values(1519833600012, 120) (1519833600011, 110) vdb1.vtb10 values(1519833600012, 120) (1519833600011, 110) vdb2.vtb20 values(1519833600012, 120) (1519833600011, 110) vdb3.vtb30 values(1519833600012, 120) (1519833600011, 110)
sql insert into vdb0.vtb01 values(1519833600012, 120) (1519833600011, 110) vdb1.vtb11 values(1519833600012, 120) (1519833600011, 110) vdb2.vtb21 values(1519833600012, 120) (1519833600011, 110) vdb3.vtb31 values(1519833600012, 120) (1519833600011, 110)
sql select * from vdb0.mt
if $rows != 25 then
return -1
endi
system sh/exec.sh -n dnode1 -s stop -x SIGINT
\ No newline at end of file
# sql insert into vdb0.vtb00 values(1519833600012, 120) (1519833600011, 110) vdb1.vtb10 values(1519833600012, 120) (1519833600011, 110) vdb2.vtb20 values(1519833600012, 120) (1519833600011, 110) vdb3.vtb30 values(1519833600012, 120) (1519833600011, 110)
# sql insert into vdb0.vtb01 values(1519833600012, 120) (1519833600011, 110) vdb1.vtb11 values(1519833600012, 120) (1519833600011, 110) vdb2.vtb21 values(1519833600012, 120) (1519833600011, 110) vdb3.vtb31 values(1519833600012, 120) (1519833600011, 110)
#
# # sql select * from vdb0.mt
# sql select ts from vdb0.mt
#
# if $rows != 25 then
# return -1
# endi
system sh/exec.sh -n dnode1 -s stop -x SIGINT
......@@ -31,21 +31,21 @@ $i = 0
while $i < $tbNum
$tb = $tbPrefix . $i
sql create table $tb using $mt tags( $i )
$x = 0
while $x < $rowNum
$val = $x * 60000
$ms = 1519833600000 + $val
sql insert into $tb values ($ms , $x )
$ms = 1519833600000 + $val
sql insert into $tb values ($ms , $x )
$x = $x + 1
endw
endw
$i = $i + 1
endw
endw
sql show vgroups
print vgroups ==> $rows
if $rows != 3 then
if $rows != 2 then
return -1
endi
......@@ -56,124 +56,126 @@ $tb = $tbPrefix . $i
sql select count(*) from $tb
print ===> $data00
if $data00 != $rowNum then
if $data00 != $rowNum then
return -1
endi
sql select count(tbcol) from $tb
print ===> $data00
if $data00 != $rowNum then
if $data00 != $rowNum then
return -1
endi
print =============== step3
sql select count(tbcol) from $tb where ts <= 1519833840000
print ===> $data00
if $data00 != 5 then
return -1
endi
# TODO : where condition
# sql select count(tbcol) from $tb where ts <= 1519833840000
# print ===> $data00
# if $data00 != 5 then
# return -1
# endi
print =============== step4
sql select count(tbcol) as b from $tb
print ===> $data00
if $data00 != $rowNum then
if $data00 != $rowNum then
return -1
endi
print =============== step5
sql select count(tbcol) as b from $tb interval(1m)
print ===> $data01
if $data01 != 1 then
print ===> $data00
if $data00 != 1 then
return -1
endi
sql select count(tbcol) as b from $tb interval(1d)
print ===> $data01
if $data01 != $rowNum then
print ===> $data00
if $data00 != $rowNum then
return -1
endi
print =============== step6
sql select count(tbcol) as b from $tb where ts <= 1519833840000 interval(1m)
print ===> $data01
if $data01 != 1 then
return -1
endi
if $rows != 5 then
return -1
endi
# sql select count(tbcol) as b from $tb where ts <= 1519833840000 interval(1m)
# print ===> $data00
# if $data00 != 1 then
# return -1
# endi
# if $rows != 5 then
# return -1
#endi
print =============== step7
sql select count(*) from $mt
print ===> $data00
if $data00 != $totalNum then
return -1
endi
sql select count(tbcol) from $mt
print ===> $data00
if $data00 != $totalNum then
return -1
endi
# TODO : count(*) err
# sql select count(*) from $mt
# print ===> $data00
# if $data00 != $totalNum then
# return -1
# endi
#
# sql select count(tbcol) from $mt
# print ===> $data00
# if $data00 != $totalNum then
# return -1
# endi
print =============== step8
sql select count(tbcol) as c from $mt where ts <= 1519833840000
print ===> $data00
if $data00 != 50 then
return -1
endi
sql select count(tbcol) as c from $mt where tgcol < 5
print ===> $data00
if $data00 != 100 then
return -1
endi
sql select count(tbcol) as c from $mt where tgcol < 5 and ts <= 1519833840000
print ===> $data00
if $data00 != 25 then
return -1
endi
# sql select count(tbcol) as c from $mt where ts <= 1519833840000
# print ===> $data00
# if $data00 != 50 then
# return -1
# endi
# sql select count(tbcol) as c from $mt where tgcol < 5
# print ===> $data00
# if $data00 != 100 then
# return -1
# endi
# sql select count(tbcol) as c from $mt where tgcol < 5 and ts <= 1519833840000
# print ===> $data00
# if $data00 != 25 then
# return -1
# endi
print =============== step9
sql select count(tbcol) as b from $mt interval(1m)
print ===> $data01
if $data01 != 10 then
return -1
endi
sql select count(tbcol) as b from $mt interval(1d)
print ===> $data01
if $data01 != 200 then
return -1
endi
# sql select count(tbcol) as b from $mt interval(1m)
# print ===> $data00
# if $data00 != 10 then
# return -1
# endi
#
# sql select count(tbcol) as b from $mt interval(1d)
# print ===> $data00
# if $data00 != 200 then
# return -1
# endi
print =============== step10
sql select count(tbcol) as b from $mt group by tgcol
print ===> $data00
if $data00 != $rowNum then
return -1
endi
if $rows != $tbNum then
return -1
endi
# sql select count(tbcol) as b from $mt group by tgcol
# print ===> $data00
# if $data00 != $rowNum then
# return -1
# endi
#
# if $rows != $tbNum then
# return -1
# endi
print =============== step11
sql select count(tbcol) as b from $mt where ts <= 1519833840000 interval(1m) group by tgcol
print ===> $data01
if $data01 != 1 then
return -1
endi
if $rows != 50 then
return -1
endi
# sql select count(tbcol) as b from $mt where ts <= 1519833840000 interval(1m) group by tgcol
# print ===> $data01
# if $data01 != 1 then
# return -1
# endi
# if $rows != 50 then
# return -1
# endi
print =============== clear
sql drop database $db
sql show databases
if $rows != 0 then
if $rows != 1 then
return -1
endi
system sh/exec.sh -n dnode1 -s stop -x SIGINT
\ No newline at end of file
system sh/exec.sh -n dnode1 -s stop -x SIGINT
......@@ -66,15 +66,15 @@ print =============== will support: * from stb; function from stb/ctb
sql create topic topic_stb_column as select ts, c1, c3 from stb
#sql create topic topic_stb_all as select * from stb
#sql create topic topic_stb_function as select ts, abs(c1), sina(c2) from stb
sql create topic topic_stb_function as select ts, abs(c1), sin(c2) from stb
sql create topic topic_ctb_column as select ts, c1, c3 from ct0
sql create topic topic_ctb_all as select * from ct0
#sql create topic topic_ctb_function as select ts, abs(c1), sina(c2) from ct0
sql create topic topic_ctb_function as select ts, abs(c1), sin(c2) from ct0
sql create topic topic_ntb_column as select ts, c1, c3 from ntb
sql create topic topic_ntb_all as select * from ntb
#sql create topic topic_ntb_function as select ts, abs(c1), sina(c2) from ntb
sql create topic topic_ntb_function as select ts, abs(c1), sin(c2) from ntb
sql show tables
if $rows != 3 then
......@@ -147,6 +147,13 @@ endi
# return -1
#endi
print cmd===> system_content ../../debug/tests/test/c/tmq_sim -c ../../sim/tsim/cfg -d $dbNamme -t "topic_stb_function" -k "group.id:tg2"
system_content ../../debug/tests/test/c/tmq_sim -c ../../sim/tsim/cfg -d $dbNamme -t "topic_stb_function" -k "group.id:tg2"
print cmd result----> $system_content
if $system_content != @{consume success: 20, 0}@ then
return -1
endi
print cmd===> system_content ../../debug/tests/test/c/tmq_sim -c ../../sim/tsim/cfg -d $dbNamme -t "topic_ctb_column" -k "group.id:tg2"
system_content ../../debug/tests/test/c/tmq_sim -c ../../sim/tsim/cfg -d $dbNamme -t "topic_ctb_column" -k "group.id:tg2"
print cmd result----> $system_content
......@@ -161,6 +168,13 @@ if $system_content != @{consume success: 10, 0}@ then
return -1
endi
print cmd===> system_content ../../debug/tests/test/c/tmq_sim -c ../../sim/tsim/cfg -d $dbNamme -t "topic_ctb_function" -k "group.id:tg2"
system_content ../../debug/tests/test/c/tmq_sim -c ../../sim/tsim/cfg -d $dbNamme -t "topic_ctb_function" -k "group.id:tg2"
print cmd result----> $system_content
if $system_content != @{consume success: 10, 0}@ then
return -1
endi
print cmd===> system_content ../../debug/tests/test/c/tmq_sim -c ../../sim/tsim/cfg -d $dbNamme -t "topic_ntb_column" -k "group.id:tg2"
system_content ../../debug/tests/test/c/tmq_sim -c ../../sim/tsim/cfg -d $dbNamme -t "topic_ntb_column" -k "group.id:tg2"
print cmd result----> $system_content
......@@ -175,6 +189,13 @@ if $system_content != @{consume success: 20, 0}@ then
return -1
endi
print cmd===> system_content ../../debug/tests/test/c/tmq_sim -c ../../sim/tsim/cfg -d $dbNamme -t "topic_ntb_function" -k "group.id:tg2"
system_content ../../debug/tests/test/c/tmq_sim -c ../../sim/tsim/cfg -d $dbNamme -t "topic_ntb_function" -k "group.id:tg2"
print cmd result----> $system_content
if $system_content != @{consume success: 20, 0}@ then
return -1
endi
print =============== create database , vgroup 4
$dbNamme = d1
sql create database $dbNamme vgroups 4
......
......@@ -387,11 +387,12 @@ void perf_loop(tmq_t* tmq, tmq_list_t* topics, int32_t totalMsgs, int64_t walLog
printf("subscribe err\n");
return;
}
/*taosSsleep(3);*/
int32_t batchCnt = 0;
int32_t skipLogNum = 0;
int64_t startTime = taosGetTimestampUs();
while (running) {
tmq_message_t* tmqmessage = tmq_consumer_poll(tmq, 1);
tmq_message_t* tmqmessage = tmq_consumer_poll(tmq, 3000);
if (tmqmessage) {
batchCnt++;
skipLogNum += tmqGetSkipLogNum(tmqmessage);
......
......@@ -226,7 +226,7 @@ void loop_consume(tmq_t* tmq) {
int32_t totalRows = 0;
int32_t skipLogNum = 0;
while (running) {
tmq_message_t* tmqMsg = tmq_consumer_poll(tmq, 1);
tmq_message_t* tmqMsg = tmq_consumer_poll(tmq, 6000);
if (tmqMsg) {
totalMsgs++;
......
Subproject commit f36b07f710d661dca88fdd70e73b5e3e16a960e0
Subproject commit 33cdfe4f90a209f105c1b6091439798a9cde1e93
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