未验证 提交 b64bfa97 编写于 作者: C Cary Xu 提交者: GitHub

Feature/td 11463 3.0 (#10573)

* Block-wise SMA extraction

* refactor the SBlock

* add method tsdbLoadBlockOffset

* set method tsdbLoadBlockOffset static

* refactor

* trigger CI

* minor change

* trigger CI

* add STSma defintion

* add STSma schema encode/decode

* restore

* code optimization

* put/get sma schema from bdb

* add/check tSma schema methods

* code optimization

* code optimization
上级 e9f109d6
......@@ -1866,10 +1866,59 @@ typedef struct {
uint64_t tableUid; // super/common table uid
int64_t interval;
int64_t sliding;
col_id_t* colIds; // N.B. sorted column ids
uint16_t* funcIds; // N.B. sorted sma function ids
col_id_t* colIds; // sorted column ids
uint16_t* funcIds; // sorted sma function ids
} STSma; // Time-range-wise SMA
typedef struct {
int8_t msgType; // 0 create, 1 recreate
STSma tSma;
STimeWindow window;
} SCreateTSmaMsg;
typedef struct {
STimeWindow window;
char indexName[TSDB_INDEX_NAME_LEN + 1];
} SDropTSmaMsg;
typedef struct {
STimeWindow tsWindow; // [skey, ekey]
uint64_t tableUid; // sub/common table uid
int32_t numOfBlocks; // number of sma blocks for each column, total number is numOfBlocks*numOfColId
int32_t dataLen; // total data length
col_id_t* colIds; // e.g. 2,4,9,10
col_id_t numOfColIds; // e.g. 4
char data[]; // the sma blocks
} STSmaData;
// TODO: move to the final location afte schema of STSma/STSmaData defined
static FORCE_INLINE void tdDestroySmaData(STSmaData* pSmaData) {
if (pSmaData) {
if (pSmaData->colIds) {
tfree(pSmaData->colIds);
}
tfree(pSmaData);
}
}
// RSma: Time-range-wise Rollup SMA
// TODO: refactor when rSma grammar defined finally =>
typedef struct {
int64_t interval;
int32_t retention; // unit: day
uint16_t days; // unit: day
int8_t intervalUnit;
} SSmaParams;
// TODO: refactor when rSma grammar defined finally <=
typedef struct {
// TODO: refactor to use the real schema =>
STSma tsma;
float xFilesFactor;
SArray* smaParams; // SSmaParams
// TODO: refactor to use the real schema <=
} SRSma;
typedef struct {
uint32_t number;
STSma* tSma;
......@@ -1885,12 +1934,17 @@ static FORCE_INLINE void tdDestroyTSma(STSma* pSma, bool releaseSelf) {
}
}
static FORCE_INLINE void tdDestroyTSmaWrapper(STSmaWrapper* pSW) {
if (pSW && pSW->tSma) {
for (uint32_t i = 0; i < pSW->number; ++i) {
tdDestroyTSma(pSW->tSma + i, false);
static FORCE_INLINE void tdDestroyTSmaWrapper(STSmaWrapper* pSW, bool releaseSelf) {
if (pSW) {
if (pSW->tSma) {
for (uint32_t i = 0; i < pSW->number; ++i) {
tdDestroyTSma(pSW->tSma + i, false);
}
tfree(pSW->tSma);
}
if (releaseSelf) {
free(pSW);
}
tfree(pSW->tSma);
}
}
......
......@@ -184,6 +184,9 @@ enum {
TD_DEF_MSG_TYPE(TDMT_VND_SUBSCRIBE, "vnode-subscribe", SMVSubscribeReq, SMVSubscribeRsp)
TD_DEF_MSG_TYPE(TDMT_VND_CONSUME, "vnode-consume", SMqCVConsumeReq, SMqCVConsumeRsp)
TD_DEF_MSG_TYPE(TDMT_VND_CREATE_SMA, "vnode-create-sma", NULL, NULL)
TD_DEF_MSG_TYPE(TDMT_VND_CANCEL_SMA, "vnode-cancel-sma", NULL, NULL)
TD_DEF_MSG_TYPE(TDMT_VND_DROP_SMA, "vnode-drop-sma", NULL, NULL)
// Requests handled by QNODE
TD_NEW_MSG_SEG(TDMT_QND_MSG)
......
......@@ -118,6 +118,8 @@ typedef struct {
} SKvRow;
typedef struct {
/// timestamp
TSKEY ts;
union {
/// union field for encode and decode
uint32_t info;
......@@ -138,8 +140,6 @@ typedef struct {
uint32_t len;
/// row version
uint64_t ver;
/// timestamp
TSKEY ts;
/// the inline data, maybe a tuple or a k-v tuple
char data[];
} STSRow;
......@@ -173,7 +173,7 @@ typedef struct {
#define TD_ROW_DATA(r) ((r)->data)
#define TD_ROW_LEN(r) ((r)->len)
#define TD_ROW_KEY(r) ((r)->ts)
#define TD_ROW_KEY_ADDR(r) POINTER_SHIFT((r), 16)
#define TD_ROW_KEY_ADDR(r) (r)
// N.B. If without STSchema, getExtendedRowSize() is used to get the rowMaxBytes and
// (int32_t)ceil((double)nCols/TD_VTYPE_PARTS) should be added if TD_SUPPORT_BITMAP defined.
......
......@@ -57,6 +57,7 @@ STbCfg * metaGetTbInfoByName(SMeta *pMeta, char *tbname, tb_uid_t *uid);
SSchemaWrapper *metaGetTableSchema(SMeta *pMeta, tb_uid_t uid, int32_t sver, bool isinline);
STSchema * metaGetTbTSchema(SMeta *pMeta, tb_uid_t uid, int32_t sver);
SSmaCfg * metaGetSmaInfoByName(SMeta *pMeta, const char *indexName);
STSmaWrapper * metaGetSmaInfoByUid(SMeta *pMeta, tb_uid_t uid);
SMTbCursor *metaOpenTbCursor(SMeta *pMeta);
void metaCloseTbCursor(SMTbCursor *pTbCur);
......
......@@ -87,6 +87,27 @@ int tsdbInsertData(STsdb *pTsdb, SSubmitReq *pMsg, SSubmitRsp *pRsp);
int tsdbPrepareCommit(STsdb *pTsdb);
int tsdbCommit(STsdb *pTsdb);
/**
* @brief Insert tSma(Time-range-wise SMA) data from stream computing engine
*
* @param pTsdb
* @param param
* @param pData
* @return int32_t
*/
int32_t tsdbInsertTSmaData(STsdb *pTsdb, STSma *param, STSmaData *pData);
/**
* @brief Insert RSma(Time-range-wise Rollup SMA) data.
*
* @param pTsdb
* @param param
* @param pData
* @return int32_t
*/
int32_t tsdbInsertRSmaData(STsdb *pTsdb, SRSma *param, STSmaData *pData);
// STsdbCfg
int tsdbOptionsInit(STsdbCfg *);
void tsdbOptionsClear(STsdbCfg *);
......
......@@ -35,6 +35,7 @@
#include "tsdbMemory.h"
#include "tsdbOptions.h"
#include "tsdbReadImpl.h"
#include "tsdbSma.h"
#ifdef __cplusplus
extern "C" {
......
......@@ -42,6 +42,7 @@ typedef struct {
typedef struct {
STsdbFSMeta meta; // FS meta
SArray * df; // data file array
SArray * smaf; // sma data file array
} SFSStatus;
typedef struct {
......
/*
* 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_TSDB_SMA_H_
#define _TD_TSDB_SMA_H_
// insert/update interface
int32_t tsdbInsertTSmaDataImpl(STsdb *pTsdb, STSma *param, STSmaData *pData);
int32_t tsdbInsertRSmaDataImpl(STsdb *pTsdb, SRSma *param, STSmaData *pData);
// query interface
// TODO: This is the basic params, and should wrap the params to a queryHandle.
int32_t tsdbGetTSmaDataImpl(STsdb *pTsdb, STSma *param, STSmaData *pData, STimeWindow *queryWin, int32_t nMaxResult);
// management interface
int32_t tsdbGetTSmaStatus(STsdb *pTsdb, STSma *param, void* result);
int32_t tsdbRemoveTSmaData(STsdb *pTsdb, STSma *param, STimeWindow *pWin);
// internal func
static FORCE_INLINE int32_t tsdbEncodeTSmaKey(uint64_t tableUid, col_id_t colId, TSKEY tsKey, void **pData) {
int32_t len = 0;
len += taosEncodeFixedU64(pData, tableUid);
len += taosEncodeFixedU16(pData, colId);
len += taosEncodeFixedI64(pData, tsKey);
return len;
}
#if 0
typedef struct {
int minFid;
int midFid;
int maxFid;
TSKEY minKey;
} SRtn;
typedef struct {
uint64_t uid;
int64_t offset;
int64_t size;
} SKVRecord;
void tsdbGetRtnSnap(STsdb *pRepo, SRtn *pRtn);
static FORCE_INLINE int TSDB_KEY_FID(TSKEY key, int32_t days, int8_t precision) {
if (key < 0) {
return (int)((key + 1) / tsTickPerDay[precision] / days - 1);
} else {
return (int)((key / tsTickPerDay[precision] / days));
}
}
static FORCE_INLINE int tsdbGetFidLevel(int fid, SRtn *pRtn) {
if (fid >= pRtn->maxFid) {
return 0;
} else if (fid >= pRtn->midFid) {
return 1;
} else if (fid >= pRtn->minFid) {
return 2;
} else {
return -1;
}
}
#define TSDB_DEFAULT_BLOCK_ROWS(maxRows) ((maxRows)*4 / 5)
int tsdbEncodeKVRecord(void **buf, SKVRecord *pRecord);
void *tsdbDecodeKVRecord(void *buf, SKVRecord *pRecord);
void *tsdbCommitData(STsdbRepo *pRepo);
int tsdbApplyRtnOnFSet(STsdbRepo *pRepo, SDFileSet *pSet, SRtn *pRtn);
int tsdbWriteBlockInfoImpl(SDFile *pHeadf, STable *pTable, SArray *pSupA, SArray *pSubA, void **ppBuf, SBlockIdx *pIdx);
int tsdbWriteBlockIdx(SDFile *pHeadf, SArray *pIdxA, void **ppBuf);
int tsdbWriteBlockImpl(STsdbRepo *pRepo, STable *pTable, SDFile *pDFile, SDataCols *pDataCols, SBlock *pBlock,
bool isLast, bool isSuper, void **ppBuf, void **ppCBuf);
int tsdbApplyRtn(STsdbRepo *pRepo);
#endif
#endif /* _TD_TSDB_SMA_H_ */
\ No newline at end of file
......@@ -833,6 +833,7 @@ SMSmaCursor *metaOpenSmaCursor(SMeta *pMeta, tb_uid_t uid) {
}
pCur->uid = uid;
// TODO: lock?
ret = pDB->pCtbIdx->cursor(pDB->pSmaIdx, NULL, &(pCur->pCur), 0);
if (ret != 0) {
free(pCur);
......@@ -852,25 +853,68 @@ void metaCloseSmaCurosr(SMSmaCursor *pCur) {
}
}
const char* metaSmaCursorNext(SMSmaCursor *pCur) {
DBT skey = {0};
DBT pkey = {0};
DBT pval = {0};
void *pBuf;
const char *metaSmaCursorNext(SMSmaCursor *pCur) {
DBT skey = {0};
DBT pkey = {0};
DBT pval = {0};
// Set key
skey.data = &(pCur->uid);
skey.size = sizeof(pCur->uid);
// TODO: lock?
if (pCur->pCur->pget(pCur->pCur, &skey, &pkey, &pval, DB_NEXT) == 0) {
const char* indexName = (const char *)pkey.data;
const char *indexName = (const char *)pkey.data;
assert(indexName != NULL);
return indexName;
} else {
return 0;
return NULL;
}
}
STSmaWrapper *metaGetSmaInfoByUid(SMeta *pMeta, tb_uid_t uid) {
STSmaWrapper *pSW = NULL;
pSW = calloc(sizeof(*pSW), 1);
if (pSW == NULL) {
return NULL;
}
SMSmaCursor *pCur = metaOpenSmaCursor(pMeta, uid);
if (pCur == NULL) {
free(pSW);
return NULL;
}
DBT skey = {.data = &(pCur->uid)};
DBT pval = {.size = sizeof(pCur->uid)};
void *pBuf = NULL;
while (true) {
// TODO: lock?
if (pCur->pCur->pget(pCur->pCur, &skey, NULL, &pval, DB_NEXT) == 0) {
++pSW->number;
STSma *tptr = (STSma *)realloc(pSW->tSma, pSW->number * sizeof(STSma));
if (tptr == NULL) {
metaCloseSmaCurosr(pCur);
tdDestroyTSmaWrapper(pSW, true);
return NULL;
}
pSW->tSma = tptr;
pBuf = pval.data;
if (tDecodeTSma(pBuf, pSW->tSma + pSW->number - 1) == NULL) {
metaCloseSmaCurosr(pCur);
tdDestroyTSmaWrapper(pSW, true);
return NULL;
}
continue;
}
break;
}
metaCloseSmaCurosr(pCur);
return pSW;
}
static void metaDBWLock(SMetaDB *pDB) {
#if IMPL_WITH_LOCK
......
/*
* 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 "tsdbDef.h"
#define SMA_STORAGE_TSDB_DAYS 30
#define SMA_STORAGE_SPLIT_HOURS 24
#define SMA_KEY_LEN 18 // tableUid_colId_TSKEY 8+2+8
#define SMA_STORE_SINGLE_BLOCKS // store SMA data by single block or multiple blocks
typedef enum {
SMA_STORAGE_LEVEL_TSDB = 0, // store TSma in dir e.g. vnode${N}/tsdb/.tsma
SMA_STORAGE_LEVEL_DFILESET = 1 // store TSma in file e.g. vnode${N}/tsdb/v2f1900.tsma.${sma_index_name}
} ESmaStorageLevel;
typedef struct {
STsdb * pTsdb;
char * pDFile; // TODO: use the real DFile type, not char*
int32_t interval; // interval with the precision of DB
int32_t blockSize; // size of SMA block item
// TODO
} STSmaWriteH;
typedef struct {
int32_t iter;
} SmaFsIter;
typedef struct {
STsdb * pTsdb;
char * pDFile; // TODO: use the real DFile type, not char*
int32_t interval; // interval with the precision of DB
int32_t blockSize; // size of SMA block item
int8_t storageLevel;
int8_t days;
SmaFsIter smaFsIter;
// TODO
} STSmaReadH;
// declaration of static functions
static int32_t tsdbInitTSmaWriteH(STSmaWriteH *pSmaH, STsdb *pTsdb, STSma *param, STSmaData *pData);
static int32_t tsdbInitTSmaReadH(STSmaReadH *pSmaH, STsdb *pTsdb, STSma *param, STSmaData *pData);
static int32_t tsdbJudgeStorageLevel(int64_t interval, int8_t intervalUnit);
static int32_t tsdbInsertTSmaDataSection(STSmaWriteH *pSmaH, STSmaData *pData, int32_t sectionDataLen, int32_t nBlocks);
static int32_t tsdbInsertTSmaBlocks(void *bTree, const char *smaKey, const char *pData, int32_t dataLen);
static int32_t tsdbTSmaDataSplit(STSmaWriteH *pSmaH, STSma *param, STSmaData *pData, int32_t days, int32_t nOffset,
int32_t fid, int32_t *nSmaBlocks);
static int64_t tsdbGetIntervalByPrecision(int64_t interval, uint8_t intervalUnit, int8_t precision);
static int32_t tsdbSetTSmaDataFile(STSmaWriteH *pSmaH, STSma *param, STSmaData *pData, int32_t storageLevel,
int32_t fid);
static int32_t tsdbInitTSmaReadH(STSmaReadH *pSmaH, STsdb *pTsdb, STSma *param, STSmaData *pData);
static int32_t tsdbInitTSmaFile(STSmaReadH *pReadH, STSma *param, STimeWindow *queryWin);
static bool tsdbSetAndOpenTSmaFile(STSmaReadH *pReadH, STSma *param, STimeWindow *queryWin);
/**
* @brief Judge the tSma storage level
*
* @param interval
* @param intervalUnit
* @return int32_t
*/
static int32_t tsdbJudgeStorageLevel(int64_t interval, int8_t intervalUnit) {
// TODO: configurable for SMA_STORAGE_SPLIT_HOURS?
switch (intervalUnit) {
case TD_TIME_UNIT_HOUR:
if (interval < SMA_STORAGE_SPLIT_HOURS) {
return SMA_STORAGE_LEVEL_DFILESET;
}
break;
case TD_TIME_UNIT_MINUTE:
if (interval < 60 * SMA_STORAGE_SPLIT_HOURS) {
return SMA_STORAGE_LEVEL_DFILESET;
}
break;
case TD_TIME_UNIT_SEC:
if (interval < 3600 * SMA_STORAGE_SPLIT_HOURS) {
return SMA_STORAGE_LEVEL_DFILESET;
}
break;
case TD_TIME_UNIT_MILLISEC:
if (interval < 3600 * 1e3 * SMA_STORAGE_SPLIT_HOURS) {
return SMA_STORAGE_LEVEL_DFILESET;
}
break;
case TD_TIME_UNIT_MICROSEC:
if (interval < 3600 * 1e6 * SMA_STORAGE_SPLIT_HOURS) {
return SMA_STORAGE_LEVEL_DFILESET;
}
break;
case TD_TIME_UNIT_NANOSEC:
if (interval < 3600 * 1e9 * SMA_STORAGE_SPLIT_HOURS) {
return SMA_STORAGE_LEVEL_DFILESET;
}
break;
default:
break;
}
return SMA_STORAGE_LEVEL_TSDB;
}
/**
* @brief Insert TSma data blocks to B+Tree
*
* @param bTree
* @param smaKey
* @param pData
* @param dataLen
* @return int32_t
*/
static int32_t tsdbInsertTSmaBlocks(void *bTree, const char *smaKey, const char *pData, int32_t dataLen) {
// TODO: insert sma data blocks into B+Tree
printf("insert sma data blocks into B+Tree: smaKey %" PRIx64 "-%" PRIu16 "-%" PRIx64 ", dataLen %d\n",
*(uint64_t *)smaKey, *(uint16_t *)POINTER_SHIFT(smaKey, 8), *(int64_t *)POINTER_SHIFT(smaKey, 10), dataLen);
return TSDB_CODE_SUCCESS;
}
static int64_t tsdbGetIntervalByPrecision(int64_t interval, uint8_t intervalUnit, int8_t precision) {
if (intervalUnit < TD_TIME_UNIT_MILLISEC) {
switch (intervalUnit) {
case TD_TIME_UNIT_YEAR:
case TD_TIME_UNIT_SEASON:
case TD_TIME_UNIT_MONTH:
case TD_TIME_UNIT_WEEK:
// illegal time unit
tsdbError("invalid interval unit: %d\n", intervalUnit);
TASSERT(0);
break;
case TD_TIME_UNIT_DAY: // the interval for tSma calculation must <= day
interval *= 86400 * 1e3;
break;
case TD_TIME_UNIT_HOUR:
interval *= 3600 * 1e3;
break;
case TD_TIME_UNIT_MINUTE:
interval *= 60 * 1e3;
break;
case TD_TIME_UNIT_SEC:
interval *= 1e3;
break;
default:
break;
}
}
switch (intervalUnit) {
case TD_TIME_UNIT_MILLISEC:
if (TSDB_TIME_PRECISION_MILLI == precision) {
return interval;
} else if (TSDB_TIME_PRECISION_MICRO == precision) {
return interval * 1e3;
} else { // nano second
return interval * 1e6;
}
break;
case TD_TIME_UNIT_MICROSEC:
if (TSDB_TIME_PRECISION_MILLI == precision) {
return interval / 1e3;
} else if (TSDB_TIME_PRECISION_MICRO == precision) {
return interval;
} else { // nano second
return interval * 1e3;
}
break;
case TD_TIME_UNIT_NANOSEC:
if (TSDB_TIME_PRECISION_MILLI == precision) {
return interval / 1e6;
} else if (TSDB_TIME_PRECISION_MICRO == precision) {
return interval / 1e3;
} else { // nano second
return interval;
}
break;
default:
if (TSDB_TIME_PRECISION_MILLI == precision) {
return interval * 1e3;
} else if (TSDB_TIME_PRECISION_MICRO == precision) {
return interval * 1e6;
} else { // nano second
return interval * 1e9;
}
break;
}
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, STSmaData *pData, int32_t nOffset, int32_t nBlocks) {
STsdb *pTsdb = pSmaH->pTsdb;
TASSERT(pData->colIds != NULL);
tsdbDebug("tsdbInsertTSmaDataSection: nOffset %d, nBlocks %d", nOffset, nBlocks);
printf("tsdbInsertTSmaDataSection: nOffset %d, nBlocks %d\n", nOffset, nBlocks);
int32_t colDataLen = pData->dataLen / pData->numOfColIds;
int32_t sectionDataLen = pSmaH->blockSize * nBlocks;
for (col_id_t i = 0; i < pData->numOfColIds; ++i) {
// param: pointer of B+Tree, key, value, dataLen
void *bTree = pSmaH->pDFile;
#ifndef SMA_STORE_SINGLE_BLOCKS
// save tSma data blocks as a whole
char smaKey[SMA_KEY_LEN] = {0};
void *pSmaKey = &smaKey;
tsdbEncodeTSmaKey(pData->tableUid, *(pData->colIds + i), pData->tsWindow.skey + nOffset * pSmaH->interval,
(void **)&pSmaKey);
if (tsdbInsertTSmaBlocks(bTree, smaKey, pData->data + i * colDataLen + nOffset * pSmaH->blockSize, sectionDataLen) <
0) {
tsdbWarn("vgId:%d insert tSma blocks failed since %s", REPO_ID(pTsdb), tstrerror(terrno));
}
#else
// save tSma data blocks separately
for (int32_t n = 0; n < nBlocks; ++n) {
char smaKey[SMA_KEY_LEN] = {0};
void *pSmaKey = &smaKey;
tsdbEncodeTSmaKey(pData->tableUid, *(pData->colIds + i), pData->tsWindow.skey + (nOffset + n) * pSmaH->interval,
(void **)&pSmaKey);
if (tsdbInsertTSmaBlocks(bTree, smaKey, pData->data + i * colDataLen + (nOffset + n) * pSmaH->blockSize,
pSmaH->blockSize) < 0) {
tsdbWarn("vgId:%d insert tSma blocks failed since %s", REPO_ID(pTsdb), tstrerror(terrno));
}
}
#endif
}
return TSDB_CODE_SUCCESS;
}
static int32_t tsdbInitTSmaWriteH(STSmaWriteH *pSmaH, STsdb *pTsdb, STSma *param, STSmaData *pData) {
pSmaH->pTsdb = pTsdb;
pSmaH->interval = tsdbGetIntervalByPrecision(param->interval, param->intervalUnit, REPO_CFG(pTsdb)->precision);
pSmaH->blockSize = param->numOfFuncIds * sizeof(int64_t);
}
static int32_t tsdbSetTSmaDataFile(STSmaWriteH *pSmaH, STSma *param, STSmaData *pData, int32_t storageLevel,
int32_t fid) {
// TODO
pSmaH->pDFile = "tSma_interval_file_name";
return TSDB_CODE_SUCCESS;
} /**
* @brief Split the sma data blocks by fid.
*
* @param pSmaH
* @param param
* @param pData
* @param nOffset
* @param fid
* @param nSmaBlocks
* @return int32_t
*/
static int32_t tsdbTSmaDataSplit(STSmaWriteH *pSmaH, STSma *param, STSmaData *pData, int32_t days, int32_t nOffset,
int32_t fid, int32_t *nSmaBlocks) {
STsdbCfg *pCfg = REPO_CFG(pSmaH->pTsdb);
// TODO: use binary search
for (int32_t n = nOffset + 1; n < pData->numOfBlocks; ++n) {
// TODO: The tsWindow.skey should use the precision of DB.
int32_t tFid = (int32_t)(TSDB_KEY_FID(pData->tsWindow.skey + pSmaH->interval * n, days, pCfg->precision));
if (tFid > fid) {
*nSmaBlocks = n - nOffset;
break;
}
}
return TSDB_CODE_SUCCESS;
}
/**
* @brief Insert/Update Time-range-wise SMA data.
* - If interval < SMA_STORAGE_SPLIT_HOURS(e.g. 24), save the SMA data as a part of DFileSet to e.g.
* v3f1900.tsma.${sma_index_name}. The days is the same with that for TS data files.
* - If interval >= SMA_STORAGE_SPLIT_HOURS, save the SMA data to e.g. vnode3/tsma/v3f632.tsma.${sma_index_name}. The
* days is 30 times of the interval, and the minimum days is SMA_STORAGE_TSDB_DAYS(30d).
* - The destination file of one data block for some interval is determined by its start TS key.
*
* @param pTsdb
* @param param
* @param pData
* @return int32_t
*/
int32_t tsdbInsertTSmaDataImpl(STsdb *pTsdb, STSma *param, STSmaData *pData) {
STsdbCfg * pCfg = REPO_CFG(pTsdb);
STSmaData * curData = pData;
STSmaWriteH tSmaH = {0};
tsdbInitTSmaWriteH(&tSmaH, pTsdb, param, pData);
if (pData->numOfBlocks <= 0 || pData->numOfColIds <= 0 || pData->dataLen <= 0) {
TASSERT(0);
terrno = TSDB_CODE_INVALID_PARA;
return terrno;
}
// Step 1: Judge the storage level
int32_t storageLevel = tsdbJudgeStorageLevel(param->interval, param->intervalUnit);
int32_t daysPerFile = storageLevel == SMA_STORAGE_LEVEL_TSDB ? SMA_STORAGE_TSDB_DAYS : pCfg->daysPerFile;
// 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
int32_t minFid = (int32_t)(TSDB_KEY_FID(pData->tsWindow.skey, daysPerFile, pCfg->precision));
int32_t maxFid = (int32_t)(TSDB_KEY_FID(pData->tsWindow.ekey, daysPerFile, pCfg->precision));
if (minFid == maxFid) {
// Save all the TSma data to one file
// TODO: tsdbStartTSmaCommit();
tsdbSetTSmaDataFile(&tSmaH, param, pData, storageLevel, minFid);
tsdbInsertTSmaDataSection(&tSmaH, pData, 0, pData->numOfBlocks);
// TODO:tsdbEndTSmaCommit();
} else if (minFid < maxFid) {
// Split the TSma data and save to multiple files. As there is limit for the span, it can't span more than 2 files
// actually.
// TODO: tsdbStartTSmaCommit();
int32_t tFid = minFid;
int32_t nOffset = 0;
int32_t nSmaBlocks = 0;
do {
tsdbTSmaDataSplit(&tSmaH, param, pData, daysPerFile, nOffset, tFid, &nSmaBlocks);
tsdbSetTSmaDataFile(&tSmaH, param, pData, storageLevel, tFid);
if (tsdbInsertTSmaDataSection(&tSmaH, pData, nOffset, nSmaBlocks) < 0) {
return terrno;
}
++tFid;
nOffset += nSmaBlocks;
if (tFid == maxFid) {
tsdbSetTSmaDataFile(&tSmaH, param, pData, storageLevel, tFid);
tsdbInsertTSmaDataSection(&tSmaH, pData, nOffset, pData->numOfBlocks - nOffset);
break;
}
} while (true);
// TODO:tsdbEndTSmaCommit();
} else {
terrno = TSDB_CODE_INVALID_PARA;
return terrno;
}
return TSDB_CODE_SUCCESS;
}
static int32_t tsdbSetRSmaDataFile(STSmaWriteH *pSmaH, SRSma *param, STSmaData *pData, int32_t fid) {
// TODO
pSmaH->pDFile = "rSma_interval_file_name";
return TSDB_CODE_SUCCESS;
}
int32_t tsdbInsertRSmaDataImpl(STsdb *pTsdb, SRSma *param, STSmaData *pData) {
STsdbCfg * pCfg = REPO_CFG(pTsdb);
STSma * tParam = &param->tsma;
STSmaData * curData = pData;
STSmaWriteH tSmaH = {0};
tsdbInitTSmaWriteH(&tSmaH, pTsdb, tParam, pData);
int32_t nSmaBlocks = pData->numOfBlocks;
int32_t colDataLen = pData->dataLen / nSmaBlocks;
// Step 2.2: Storage of SMA_STORAGE_LEVEL_DFILESET
// TODO: Use the daysPerFile for rSma data, not for TS data.
// TODO: The lifecycle of rSma data should be processed like the TS data files.
int32_t minFid = (int32_t)(TSDB_KEY_FID(pData->tsWindow.skey, pCfg->daysPerFile, pCfg->precision));
int32_t maxFid = (int32_t)(TSDB_KEY_FID(pData->tsWindow.ekey, pCfg->daysPerFile, pCfg->precision));
if (minFid == maxFid) {
// Save all the TSma data to one file
tsdbSetRSmaDataFile(&tSmaH, param, pData, minFid);
// TODO: tsdbStartTSmaCommit();
tsdbInsertTSmaDataSection(&tSmaH, pData, colDataLen, nSmaBlocks);
// TODO:tsdbEndTSmaCommit();
} else if (minFid < maxFid) {
// Split the TSma data and save to multiple files. As there is limit for the span, it can't span more than 2 files
// actually.
// TODO: tsdbStartTSmaCommit();
int32_t tmpFid = 0;
int32_t step = 0;
for (int32_t n = 0; n < pData->numOfBlocks; ++n) {
}
tsdbInsertTSmaDataSection(&tSmaH, pData, colDataLen, nSmaBlocks);
// TODO:tsdbEndTSmaCommit();
} else {
TASSERT(0);
return TSDB_CODE_INVALID_PARA;
}
// Step 4: finish
return TSDB_CODE_SUCCESS;
}
/**
* @brief Init of tSma ReadH
*
* @param pSmaH
* @param pTsdb
* @param param
* @param pData
* @return int32_t
*/
static int32_t tsdbInitTSmaReadH(STSmaReadH *pSmaH, STsdb *pTsdb, STSma *param, STSmaData *pData) {
pSmaH->pTsdb = pTsdb;
pSmaH->interval = tsdbGetIntervalByPrecision(param->interval, param->intervalUnit, REPO_CFG(pTsdb)->precision);
pSmaH->blockSize = param->numOfFuncIds * sizeof(int64_t);
}
/**
* @brief Init of tSma FS
*
* @param pReadH
* @param param
* @param queryWin
* @return int32_t
*/
static int32_t tsdbInitTSmaFile(STSmaReadH *pReadH, STSma *param, STimeWindow *queryWin) {
int32_t storageLevel = tsdbJudgeStorageLevel(param->interval, param->intervalUnit);
int32_t daysPerFile =
storageLevel == SMA_STORAGE_LEVEL_TSDB ? SMA_STORAGE_TSDB_DAYS : REPO_CFG(pReadH->pTsdb)->daysPerFile;
pReadH->storageLevel = storageLevel;
pReadH->days = daysPerFile;
pReadH->smaFsIter.iter = 0;
}
/**
* @brief Set and open tSma file if it has key locates in queryWin.
*
* @param pReadH
* @param param
* @param queryWin
* @return true
* @return false
*/
static bool tsdbSetAndOpenTSmaFile(STSmaReadH *pReadH, STSma *param, STimeWindow *queryWin) {
SArray *smaFs = pReadH->pTsdb->fs->cstatus->smaf;
int32_t nSmaFs = taosArrayGetSize(smaFs);
pReadH->pDFile = NULL;
while (pReadH->smaFsIter.iter < nSmaFs) {
void *pSmaFile = taosArrayGet(smaFs, pReadH->smaFsIter.iter);
if (pSmaFile) { // match(indexName, queryWindow)
// TODO: select the file by index_name ...
pReadH->pDFile = pSmaFile;
++pReadH->smaFsIter.iter;
break;
}
++pReadH->smaFsIter.iter;
}
if (pReadH->pDFile != NULL) {
tsdbDebug("vg%d: smaFile %s matched", REPO_ID(pReadH->pTsdb), "[pSmaFile dir]");
return true;
}
return false;
}
/**
* @brief Return the data between queryWin and fill the pData.
*
* @param pTsdb
* @param param
* @param pData
* @param queryWin
* @param nMaxResult The query invoker should control the nMaxResult need to return to avoid OOM.
* @return int32_t
*/
int32_t tsdbGetTSmaDataImpl(STsdb *pTsdb, STSma *param, STSmaData *pData, STimeWindow *queryWin, int32_t nMaxResult) {
STSmaReadH tReadH = {0};
tsdbInitTSmaReadH(&tReadH, pTsdb, param, pData);
tsdbInitTSmaFile(&tReadH, param, queryWin);
int32_t nResult = 0;
int64_t lastKey = 0;
while (true) {
if (nResult >= nMaxResult) {
break;
}
// set and open the file according to the STSma param
if (tsdbSetAndOpenTSmaFile(&tReadH, param, queryWin)) {
char bTree[100] = "\0";
while (strncmp(bTree, "has more nodes", 100) == 0) {
if (nResult >= nMaxResult) {
break;
}
// tsdbGetDataFromBTree(bTree, queryWin, lastKey)
// fill the pData
++nResult;
}
}
}
// read data from file and fill the result
return TSDB_CODE_SUCCESS;
}
/**
* @brief Get the start TS key of the last data block of one interval/sliding.
*
* @param pTsdb
* @param param
* @param result
* @return int32_t
* 1) Return 0 and fill the result if the check procedure is normal;
* 2) Return -1 if error occurs during the check procedure.
*/
int32_t tsdbGetTSmaStatus(STsdb *pTsdb, STSma *param, void *result) {
const char *procedure = "";
if (strncmp(procedure, "get the start TS key of the last data block", 100) != 0) {
return -1;
}
// fill the result
return TSDB_CODE_SUCCESS;
}
/**
* @brief Remove the tSma data files related to param between pWin.
*
* @param pTsdb
* @param param
* @param pWin
* @return int32_t
*/
int32_t tsdbRemoveTSmaData(STsdb *pTsdb, STSma *param, STimeWindow *pWin) {
// for ("tSmaFiles of param-interval-sliding between pWin") {
// // remove the tSmaFile
// }
return TSDB_CODE_SUCCESS;
}
\ No newline at end of file
......@@ -15,6 +15,14 @@
#include "tsdbDef.h"
/**
* @brief insert TS data
*
* @param pTsdb
* @param pMsg
* @param pRsp
* @return int
*/
int tsdbInsertData(STsdb *pTsdb, SSubmitReq *pMsg, SSubmitRsp *pRsp) {
// Check if mem is there. If not, create one.
if (pTsdb->mem == NULL) {
......@@ -24,4 +32,37 @@ int tsdbInsertData(STsdb *pTsdb, SSubmitReq *pMsg, SSubmitRsp *pRsp) {
}
}
return tsdbMemTableInsert(pTsdb, pTsdb->mem, pMsg, NULL);
}
/**
* @brief Insert/Update tSma(Time-range-wise SMA) data from stream computing engine
*
* @param pTsdb
* @param param
* @param pData
* @return int32_t
* TODO: Who is responsible for resource allocate and release?
*/
int32_t tsdbInsertTSmaData(STsdb *pTsdb, STSma *param, STSmaData *pData) {
int32_t code = TSDB_CODE_SUCCESS;
if ((code = tsdbInsertTSmaDataImpl(pTsdb, param, pData)) < 0) {
tsdbWarn("vgId:%d insert tSma data failed since %s", REPO_ID(pTsdb), tstrerror(terrno));
}
return code;
}
/**
* @brief Insert Time-range-wise Rollup Sma(RSma) data
*
* @param pTsdb
* @param param
* @param pData
* @return int32_t
*/
int32_t tsdbInsertRSmaData(STsdb *pTsdb, SRSma *param, STSmaData *pData) {
int32_t code = TSDB_CODE_SUCCESS;
if ((code = tsdbInsertRSmaDataImpl(pTsdb, param, pData)) < 0) {
tsdbWarn("vgId:%d insert rSma data failed since %s", REPO_ID(pTsdb), tstrerror(terrno));
}
return code;
}
\ No newline at end of file
......@@ -132,6 +132,15 @@ int vnodeApplyWMsg(SVnode *pVnode, SRpcMsg *pMsg, SRpcMsg **pRsp) {
if (tqProcessRebReq(pVnode->pTq, POINTER_SHIFT(pMsg->pCont, sizeof(SMsgHead))) < 0) {
}
} break;
case TDMT_VND_CREATE_SMA: { // timeRangeSMA
// 1. tdCreateSmaMeta(pVnode->pMeta,...);
// 2. tdCreateSmaDataInit();
// 3. tdCreateSmaData
} break;
case TDMT_VND_CANCEL_SMA: { // timeRangeSMA
} break;
case TDMT_VND_DROP_SMA: { // timeRangeSMA
} break;
default:
ASSERT(0);
break;
......
......@@ -95,7 +95,7 @@ TEST(testCase, tSmaEncodeDecodeTest) {
// resource release
tdDestroyTSma(&tSma, false);
tdDestroyTSmaWrapper(&dstTSmaWrapper);
tdDestroyTSmaWrapper(&dstTSmaWrapper, false);
}
TEST(testCase, tSma_DB_Put_Get_Del_Test) {
......@@ -161,7 +161,7 @@ TEST(testCase, tSma_DB_Put_Get_Del_Test) {
EXPECT_EQ(qSmaCfg->interval, tSma.interval);
tdDestroyTSma(qSmaCfg, true);
// get value by table uid
// get index name by table uid
SMSmaCursor *pSmaCur = metaOpenSmaCursor(pMeta, tbUid);
assert(pSmaCur != NULL);
uint32_t indexCnt = 0;
......@@ -176,6 +176,15 @@ TEST(testCase, tSma_DB_Put_Get_Del_Test) {
EXPECT_EQ(indexCnt, 2);
metaCloseSmaCurosr(pSmaCur);
// get wrapper by table uid
STSmaWrapper *pSW = metaGetSmaInfoByUid(pMeta, tbUid);
assert(pSW != NULL);
EXPECT_EQ(pSW->number, 2);
EXPECT_STRCASEEQ(pSW->tSma->indexName, smaIndexName1);
EXPECT_EQ(pSW->tSma->tableUid, tSma.tableUid);
EXPECT_STRCASEEQ((pSW->tSma + 1)->indexName, smaIndexName2);
EXPECT_EQ((pSW->tSma + 1)->tableUid, tSma.tableUid);
// resource release
metaRemoveSmaFromDb(pMeta, smaIndexName1);
metaRemoveSmaFromDb(pMeta, smaIndexName2);
......@@ -197,15 +206,15 @@ TEST(testCase, tSmaInsertTest) {
int32_t blockSize = tSma.numOfFuncIds * sizeof(int64_t);
int32_t numOfColIds = 3;
int32_t numOfSmaBlocks = 10;
int32_t numOfBlocks = 10;
int32_t dataLen = numOfColIds * numOfSmaBlocks * blockSize;
int32_t dataLen = numOfColIds * numOfBlocks * blockSize;
pSmaData = (STSmaData*)malloc(sizeof(STSmaData) + dataLen);
ASSERT_EQ(pSmaData != NULL, true);
pSmaData->tableUid = 3232329230;
pSmaData->numOfColIds = numOfColIds;
pSmaData->numOfSmaBlocks = numOfSmaBlocks;
pSmaData->numOfBlocks = numOfBlocks;
pSmaData->dataLen = dataLen;
pSmaData->tsWindow.skey = 1640000000;
pSmaData->tsWindow.ekey = 1645788649;
......
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