提交 79b2d952 编写于 作者: H Haojun Liao

[TD-225]refactor.

上级 b9f6714c
......@@ -20,9 +20,6 @@
extern "C" {
#endif
/*
* @date 2018/09/30
*/
#include "exception.h"
#include "os.h"
#include "qExtbuffer.h"
......
......@@ -89,7 +89,7 @@ static void tscInitSqlContext(SSqlCmd *pCmd, SLocalReducer *pReducer, tOrderDesc
pCtx->startOffset = 0;
pCtx->size = 1;
pCtx->hasNull = true;
pCtx->currentStage = SECONDARY_STAGE_MERGE;
pCtx->currentStage = MERGE_STAGE;
// for top/bottom function, the output of timestamp is the first column
int32_t functionId = pExpr->functionId;
......@@ -1067,7 +1067,7 @@ static void doExecuteSecondaryMerge(SSqlCmd *pCmd, SLocalReducer *pLocalReducer,
pCtx->param[0].i64Key = pExpr->param[0].i64Key;
}
pCtx->currentStage = SECONDARY_STAGE_MERGE;
pCtx->currentStage = MERGE_STAGE;
if (needInit) {
aAggs[pCtx->functionId].init(pCtx);
......@@ -1080,7 +1080,7 @@ static void doExecuteSecondaryMerge(SSqlCmd *pCmd, SLocalReducer *pLocalReducer,
continue;
}
aAggs[functionId].distSecondaryMergeFunc(&pLocalReducer->pCtx[j]);
aAggs[functionId].mergeFunc(&pLocalReducer->pCtx[j]);
}
}
......@@ -1647,7 +1647,7 @@ int32_t doArithmeticCalculate(SQueryInfo* pQueryInfo, tFilePage* pOutput, int32_
// calculate the result from several other columns
if (pSup->pArithExprInfo != NULL) {
arithSup.pArithExpr = pSup->pArithExprInfo;
tExprTreeCalcTraverse(arithSup.pArithExpr->pExpr, (int32_t) pOutput->num, pbuf + pOutput->num*offset, &arithSup, TSDB_ORDER_ASC, getArithmeticInputSrc);
arithmeticTreeTraverse(arithSup.pArithExpr->pExpr, (int32_t) pOutput->num, pbuf + pOutput->num*offset, &arithSup, TSDB_ORDER_ASC, getArithmeticInputSrc);
} else {
SSqlExpr* pExpr = pSup->pSqlExpr;
memcpy(pbuf + pOutput->num * offset, pExpr->offset * pOutput->num + pOutput->data, (size_t)(pExpr->resBytes * pOutput->num));
......
......@@ -23,7 +23,7 @@ extern "C" {
typedef void (*_bi_consumer_fn_t)(void *left, void *right, int32_t numOfLeft, int32_t numOfRight, void *output,
int32_t order);
_bi_consumer_fn_t tGetBiConsumerFn(int32_t leftType, int32_t rightType, int32_t optr);
_bi_consumer_fn_t getArithmeticOperatorFn(int32_t leftType, int32_t rightType, int32_t optr);
#ifdef __cplusplus
}
......
......@@ -74,9 +74,7 @@ typedef struct tExprNode {
};
} tExprNode;
void tExprTreeTraverse(tExprNode *pExpr, SSkipList *pSkipList, SArray *result, SExprTraverseSupp *param);
void tExprTreeCalcTraverse(tExprNode *pExprs, int32_t numOfRows, char *pOutput, void *param, int32_t order,
void arithmeticTreeTraverse(tExprNode *pExprs, int32_t numOfRows, char *pOutput, void *param, int32_t order,
char *(*cb)(void *, const char*, int32_t));
tExprNode* exprTreeFromBinary(const void* data, size_t size);
......@@ -87,6 +85,8 @@ void exprTreeToBinary(SBufferWriter* bw, tExprNode* pExprTree);
void tExprNodeDestroy(tExprNode *pNode, void (*fp)(void *));
void tExprTreeDestroy(tExprNode **pExprs, void (*fp)(void*));
bool exprTreeApplayFilter(tExprNode *pExpr, const void *pItem, SExprTraverseSupp *param);
#ifdef __cplusplus
}
#endif
......
......@@ -190,7 +190,7 @@ typedef struct SQueryRuntimeEnv {
void* pSecQueryHandle; // another thread for
bool stableQuery; // super table query or not
bool topBotQuery; // TODO used bitwise flag
bool groupbyNormalCol; // denote if this is a groupby normal column query
bool groupbyColumn; // denote if this is a groupby normal column query
bool hasTagResults; // if there are tag values in final result or not
bool timeWindowInterpo;// if the time window start/end required interpolation
bool queryWindowIdentical; // all query time windows are identical for all tables in one group
......
......@@ -112,11 +112,10 @@ extern "C" {
#define TOP_BOTTOM_QUERY_LIMIT 100
enum {
MASTER_SCAN = 0x0u,
REVERSE_SCAN = 0x1u,
REPEAT_SCAN = 0x2u, //repeat scan belongs to the master scan
FIRST_STAGE_MERGE = 0x10u,
SECONDARY_STAGE_MERGE = 0x20u,
MASTER_SCAN = 0x0u,
REVERSE_SCAN = 0x1u,
REPEAT_SCAN = 0x2u, //repeat scan belongs to the master scan
MERGE_STAGE = 0x20u,
};
#define QUERY_IS_STABLE_QUERY(type) (((type)&TSDB_QUERY_TYPE_STABLE_QUERY) != 0)
......@@ -215,18 +214,12 @@ typedef struct SQLAggFuncElem {
void (*xFunction)(SQLFunctionCtx *pCtx); // blocks version function
void (*xFunctionF)(SQLFunctionCtx *pCtx, int32_t position); // single-row function version
// some sql function require scan data twice or more, e.g.,stddev
// some sql function require scan data twice or more, e.g.,stddev, percentile
void (*xNextStep)(SQLFunctionCtx *pCtx);
/*
* finalizer must be called after all xFunction has been executed to
* generated final result. Otherwise, the value in aOutputBuf is a intern result.
*/
// finalizer must be called after all xFunction has been executed to generated final result.
void (*xFinalize)(SQLFunctionCtx *pCtx);
void (*distMergeFunc)(SQLFunctionCtx *pCtx);
void (*distSecondaryMergeFunc)(SQLFunctionCtx *pCtx);
void (*mergeFunc)(SQLFunctionCtx *pCtx);
int32_t (*dataReqFunc)(SQLFunctionCtx *pCtx, TSKEY start, TSKEY end, int32_t colId);
} SQLAggFuncElem;
......
......@@ -15,7 +15,7 @@
#include "os.h"
#include "qSyntaxtreefunction.h"
#include "qArithmeticOperator.h"
#include "taosdef.h"
#include "tutil.h"
......@@ -1234,7 +1234,7 @@ _bi_consumer_fn_t rem_function_arraylist[8][10] = {
////////////////////////////////////////////////////////////////////////////////////////////////////////////
_bi_consumer_fn_t tGetBiConsumerFn(int32_t leftType, int32_t rightType, int32_t optr) {
_bi_consumer_fn_t getArithmeticOperatorFn(int32_t leftType, int32_t rightType, int32_t optr) {
switch (optr) {
case TSDB_BINARY_OP_ADD:
return add_function_arraylist[leftType][rightType];
......
......@@ -16,29 +16,18 @@
#include "os.h"
#include "exception.h"
#include "qArithmeticOperator.h"
#include "qAst.h"
#include "qSyntaxtreefunction.h"
#include "taosdef.h"
#include "taosmsg.h"
#include "tarray.h"
#include "tbuffer.h"
#include "tcompare.h"
#include "tname.h"
#include "tschemautil.h"
#include "tsdb.h"
#include "tskiplist.h"
#include "tsqlfunction.h"
#include "tstoken.h"
#include "tschemautil.h"
typedef struct {
char* v;
int32_t optr;
} SEndPoint;
typedef struct {
SEndPoint* start;
SEndPoint* end;
} SQueryCond;
static uint8_t UNUSED_FUNC isQueryOnPrimaryKey(const char *primaryColumnName, const tExprNode *pLeft, const tExprNode *pRight) {
if (pLeft->nodeType == TSQL_NODE_COL) {
......@@ -53,323 +42,6 @@ static uint8_t UNUSED_FUNC isQueryOnPrimaryKey(const char *primaryColumnName, co
}
}
void tExprNodeDestroy(tExprNode *pNode, void (*fp)(void *)) {
if (pNode == NULL) {
return;
}
if (pNode->nodeType == TSQL_NODE_EXPR) {
tExprTreeDestroy(&pNode, fp);
} else if (pNode->nodeType == TSQL_NODE_VALUE) {
tVariantDestroy(pNode->pVal);
} else if (pNode->nodeType == TSQL_NODE_COL) {
free(pNode->pSchema);
}
free(pNode);
}
void tExprTreeDestroy(tExprNode **pExpr, void (*fp)(void *)) {
if (*pExpr == NULL) {
return;
}
if ((*pExpr)->nodeType == TSQL_NODE_EXPR) {
tExprTreeDestroy(&(*pExpr)->_node.pLeft, fp);
tExprTreeDestroy(&(*pExpr)->_node.pRight, fp);
if (fp != NULL) {
fp((*pExpr)->_node.info);
}
} else if ((*pExpr)->nodeType == TSQL_NODE_VALUE) {
tVariantDestroy((*pExpr)->pVal);
free((*pExpr)->pVal);
} else if ((*pExpr)->nodeType == TSQL_NODE_COL) {
free((*pExpr)->pSchema);
}
free(*pExpr);
*pExpr = NULL;
}
// todo check for malloc failure
static int32_t setQueryCond(tQueryInfo *queryColInfo, SQueryCond* pCond) {
int32_t optr = queryColInfo->optr;
if (optr == TSDB_RELATION_GREATER || optr == TSDB_RELATION_GREATER_EQUAL ||
optr == TSDB_RELATION_EQUAL || optr == TSDB_RELATION_NOT_EQUAL) {
pCond->start = calloc(1, sizeof(SEndPoint));
pCond->start->optr = queryColInfo->optr;
pCond->start->v = queryColInfo->q;
} else if (optr == TSDB_RELATION_LESS || optr == TSDB_RELATION_LESS_EQUAL) {
pCond->end = calloc(1, sizeof(SEndPoint));
pCond->end->optr = queryColInfo->optr;
pCond->end->v = queryColInfo->q;
} else if (optr == TSDB_RELATION_IN || optr == TSDB_RELATION_LIKE) {
assert(0);
}
return TSDB_CODE_SUCCESS;
}
static void tQueryIndexColumn(SSkipList* pSkipList, tQueryInfo* pQueryInfo, SArray* result) {
SSkipListIterator* iter = NULL;
SQueryCond cond = {0};
if (setQueryCond(pQueryInfo, &cond) != TSDB_CODE_SUCCESS) {
//todo handle error
}
if (cond.start != NULL) {
iter = tSkipListCreateIterFromVal(pSkipList, (char*) cond.start->v, pSkipList->type, TSDB_ORDER_ASC);
} else {
iter = tSkipListCreateIterFromVal(pSkipList, (char*)(cond.end ? cond.end->v: NULL), pSkipList->type, TSDB_ORDER_DESC);
}
if (cond.start != NULL) {
int32_t optr = cond.start->optr;
if (optr == TSDB_RELATION_EQUAL) { // equals
while(tSkipListIterNext(iter)) {
SSkipListNode* pNode = tSkipListIterGet(iter);
int32_t ret = pQueryInfo->compare(SL_GET_NODE_KEY(pSkipList, pNode), cond.start->v);
if (ret != 0) {
break;
}
STableKeyInfo info = {.pTable = (void*)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
}
} else if (optr == TSDB_RELATION_GREATER || optr == TSDB_RELATION_GREATER_EQUAL) { // greater equal
bool comp = true;
int32_t ret = 0;
while(tSkipListIterNext(iter)) {
SSkipListNode* pNode = tSkipListIterGet(iter);
if (comp) {
ret = pQueryInfo->compare(SL_GET_NODE_KEY(pSkipList, pNode), cond.start->v);
assert(ret >= 0);
}
if (ret == 0 && optr == TSDB_RELATION_GREATER) {
continue;
} else {
STableKeyInfo info = {.pTable = (void*)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
comp = false;
}
}
} else if (optr == TSDB_RELATION_NOT_EQUAL) { // not equal
bool comp = true;
while(tSkipListIterNext(iter)) {
SSkipListNode* pNode = tSkipListIterGet(iter);
comp = comp && (pQueryInfo->compare(SL_GET_NODE_KEY(pSkipList, pNode), cond.start->v) == 0);
if (comp) {
continue;
}
STableKeyInfo info = {.pTable = (void*)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
}
tSkipListDestroyIter(iter);
comp = true;
iter = tSkipListCreateIterFromVal(pSkipList, (char*) cond.start->v, pSkipList->type, TSDB_ORDER_DESC);
while(tSkipListIterNext(iter)) {
SSkipListNode* pNode = tSkipListIterGet(iter);
comp = comp && (pQueryInfo->compare(SL_GET_NODE_KEY(pSkipList, pNode), cond.start->v) == 0);
if (comp) {
continue;
}
STableKeyInfo info = {.pTable = (void*)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
}
} else {
assert(0);
}
} else {
int32_t optr = cond.end ? cond.end->optr : TSDB_RELATION_INVALID;
if (optr == TSDB_RELATION_LESS || optr == TSDB_RELATION_LESS_EQUAL) {
bool comp = true;
int32_t ret = 0;
while (tSkipListIterNext(iter)) {
SSkipListNode *pNode = tSkipListIterGet(iter);
if (comp) {
ret = pQueryInfo->compare(SL_GET_NODE_KEY(pSkipList, pNode), cond.end->v);
assert(ret <= 0);
}
if (ret == 0 && optr == TSDB_RELATION_LESS) {
continue;
} else {
STableKeyInfo info = {.pTable = (void *)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
comp = false; // no need to compare anymore
}
}
} else {
assert(pQueryInfo->optr == TSDB_RELATION_ISNULL || pQueryInfo->optr == TSDB_RELATION_NOTNULL);
while (tSkipListIterNext(iter)) {
SSkipListNode *pNode = tSkipListIterGet(iter);
bool isnull = isNull(SL_GET_NODE_KEY(pSkipList, pNode), pQueryInfo->sch.type);
if ((pQueryInfo->optr == TSDB_RELATION_ISNULL && isnull) ||
(pQueryInfo->optr == TSDB_RELATION_NOTNULL && (!isnull))) {
STableKeyInfo info = {.pTable = (void *)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
}
}
}
}
free(cond.start);
free(cond.end);
tSkipListDestroyIter(iter);
}
static bool filterItem(tExprNode *pExpr, const void *pItem, SExprTraverseSupp *param) {
tExprNode *pLeft = pExpr->_node.pLeft;
tExprNode *pRight = pExpr->_node.pRight;
//non-leaf nodes, recursively traverse the expression tree in the post-root order
if (pLeft->nodeType == TSQL_NODE_EXPR && pRight->nodeType == TSQL_NODE_EXPR) {
if (pExpr->_node.optr == TSDB_RELATION_OR) { // or
if (filterItem(pLeft, pItem, param)) {
return true;
}
// left child does not satisfy the query condition, try right child
return filterItem(pRight, pItem, param);
} else { // and
if (!filterItem(pLeft, pItem, param)) {
return false;
}
return filterItem(pRight, pItem, param);
}
}
// handle the leaf node
param->setupInfoFn(pExpr, param->pExtInfo);
return param->nodeFilterFn(pItem, pExpr->_node.info);
}
static void tSQLBinaryTraverseOnSkipList(tExprNode *pExpr, SArray *pResult, SSkipList *pSkipList, SExprTraverseSupp *param ) {
SSkipListIterator* iter = tSkipListCreateIter(pSkipList);
while (tSkipListIterNext(iter)) {
SSkipListNode *pNode = tSkipListIterGet(iter);
if (filterItem(pExpr, pNode, param)) {
taosArrayPush(pResult, &(SL_GET_NODE_DATA(pNode)));
}
}
tSkipListDestroyIter(iter);
}
static void tQueryIndexlessColumn(SSkipList* pSkipList, tQueryInfo* pQueryInfo, SArray* res, __result_filter_fn_t filterFp) {
SSkipListIterator* iter = tSkipListCreateIter(pSkipList);
while (tSkipListIterNext(iter)) {
bool addToResult = false;
SSkipListNode *pNode = tSkipListIterGet(iter);
char * pData = SL_GET_NODE_DATA(pNode);
tstr *name = (tstr*) tsdbGetTableName((void*) pData);
// todo speed up by using hash
if (pQueryInfo->sch.colId == TSDB_TBNAME_COLUMN_INDEX) {
if (pQueryInfo->optr == TSDB_RELATION_IN) {
addToResult = pQueryInfo->compare(name, pQueryInfo->q);
} else if (pQueryInfo->optr == TSDB_RELATION_LIKE) {
addToResult = !pQueryInfo->compare(name, pQueryInfo->q);
}
} else {
addToResult = filterFp(pNode, pQueryInfo);
}
if (addToResult) {
STableKeyInfo info = {.pTable = (void*)pData, .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(res, &info);
}
}
tSkipListDestroyIter(iter);
}
// post-root order traverse syntax tree
void tExprTreeTraverse(tExprNode *pExpr, SSkipList *pSkipList, SArray *result, SExprTraverseSupp *param) {
if (pExpr == NULL) {
return;
}
tExprNode *pLeft = pExpr->_node.pLeft;
tExprNode *pRight = pExpr->_node.pRight;
// column project
if (pLeft->nodeType != TSQL_NODE_EXPR && pRight->nodeType != TSQL_NODE_EXPR) {
assert(pLeft->nodeType == TSQL_NODE_COL && (pRight->nodeType == TSQL_NODE_VALUE || pRight->nodeType == TSQL_NODE_DUMMY));
param->setupInfoFn(pExpr, param->pExtInfo);
tQueryInfo *pQueryInfo = pExpr->_node.info;
if (pQueryInfo->indexed && pQueryInfo->optr != TSDB_RELATION_LIKE) {
tQueryIndexColumn(pSkipList, pQueryInfo, result);
} else {
tQueryIndexlessColumn(pSkipList, pQueryInfo, result, param->nodeFilterFn);
}
return;
}
// The value of hasPK is always 0.
uint8_t weight = pLeft->_node.hasPK + pRight->_node.hasPK;
assert(weight == 0 && pSkipList != NULL && taosArrayGetSize(result) == 0);
//apply the hierarchical expression to every node in skiplist for find the qualified nodes
tSQLBinaryTraverseOnSkipList(pExpr, result, pSkipList, param);
#if 0
/*
* (weight == 1 && pExpr->nSQLBinaryOptr == TSDB_RELATION_AND) is handled here
*
* first, we filter results based on the skiplist index, which is the initial filter stage,
* then, we conduct the secondary filter operation based on the result from the initial filter stage.
*/
assert(pExpr->_node.optr == TSDB_RELATION_AND);
tExprNode *pFirst = NULL;
tExprNode *pSecond = NULL;
if (pLeft->_node.hasPK == 1) {
pFirst = pLeft;
pSecond = pRight;
} else {
pFirst = pRight;
pSecond = pLeft;
}
assert(pFirst != pSecond && pFirst != NULL && pSecond != NULL);
// we filter the result based on the skiplist index in the first place
tExprTreeTraverse(pFirst, pSkipList, result, param);
/*
* recursively perform the filter operation based on the initial results,
* So, we do not set the skip list index as a parameter
*/
tExprTreeTraverse(pSecond, NULL, result, param);
#endif
}
static void reverseCopy(char* dest, const char* src, int16_t type, int32_t numOfRows) {
switch(type) {
case TSDB_DATA_TYPE_TINYINT: {
......@@ -430,7 +102,73 @@ static void reverseCopy(char* dest, const char* src, int16_t type, int32_t numOf
}
}
void tExprTreeCalcTraverse(tExprNode *pExprs, int32_t numOfRows, char *pOutput, void *param, int32_t order,
void tExprNodeDestroy(tExprNode *pNode, void (*fp)(void *)) {
if (pNode == NULL) {
return;
}
if (pNode->nodeType == TSQL_NODE_EXPR) {
tExprTreeDestroy(&pNode, fp);
} else if (pNode->nodeType == TSQL_NODE_VALUE) {
tVariantDestroy(pNode->pVal);
} else if (pNode->nodeType == TSQL_NODE_COL) {
free(pNode->pSchema);
}
free(pNode);
}
void tExprTreeDestroy(tExprNode **pExpr, void (*fp)(void *)) {
if (*pExpr == NULL) {
return;
}
if ((*pExpr)->nodeType == TSQL_NODE_EXPR) {
tExprTreeDestroy(&(*pExpr)->_node.pLeft, fp);
tExprTreeDestroy(&(*pExpr)->_node.pRight, fp);
if (fp != NULL) {
fp((*pExpr)->_node.info);
}
} else if ((*pExpr)->nodeType == TSQL_NODE_VALUE) {
tVariantDestroy((*pExpr)->pVal);
free((*pExpr)->pVal);
} else if ((*pExpr)->nodeType == TSQL_NODE_COL) {
free((*pExpr)->pSchema);
}
free(*pExpr);
*pExpr = NULL;
}
bool exprTreeApplayFilter(tExprNode *pExpr, const void *pItem, SExprTraverseSupp *param) {
tExprNode *pLeft = pExpr->_node.pLeft;
tExprNode *pRight = pExpr->_node.pRight;
//non-leaf nodes, recursively traverse the expression tree in the post-root order
if (pLeft->nodeType == TSQL_NODE_EXPR && pRight->nodeType == TSQL_NODE_EXPR) {
if (pExpr->_node.optr == TSDB_RELATION_OR) { // or
if (exprTreeApplayFilter(pLeft, pItem, param)) {
return true;
}
// left child does not satisfy the query condition, try right child
return exprTreeApplayFilter(pRight, pItem, param);
} else { // and
if (!exprTreeApplayFilter(pLeft, pItem, param)) {
return false;
}
return exprTreeApplayFilter(pRight, pItem, param);
}
}
// handle the leaf node
param->setupInfoFn(pExpr, param->pExtInfo);
return param->nodeFilterFn(pItem, pExpr->_node.info);
}
void arithmeticTreeTraverse(tExprNode *pExprs, int32_t numOfRows, char *pOutput, void *param, int32_t order,
char *(*getSourceDataBlock)(void *, const char*, int32_t)) {
if (pExprs == NULL) {
return;
......@@ -442,7 +180,7 @@ void tExprTreeCalcTraverse(tExprNode *pExprs, int32_t numOfRows, char *pOutput,
/* the left output has result from the left child syntax tree */
char *pLeftOutput = (char*)malloc(sizeof(int64_t) * numOfRows);
if (pLeft->nodeType == TSQL_NODE_EXPR) {
tExprTreeCalcTraverse(pLeft, numOfRows, pLeftOutput, param, order, getSourceDataBlock);
arithmeticTreeTraverse(pLeft, numOfRows, pLeftOutput, param, order, getSourceDataBlock);
}
/* the right output has result from the right child syntax tree */
......@@ -450,7 +188,7 @@ void tExprTreeCalcTraverse(tExprNode *pExprs, int32_t numOfRows, char *pOutput,
char *pdata = malloc(sizeof(int64_t) * numOfRows);
if (pRight->nodeType == TSQL_NODE_EXPR) {
tExprTreeCalcTraverse(pRight, numOfRows, pRightOutput, param, order, getSourceDataBlock);
arithmeticTreeTraverse(pRight, numOfRows, pRightOutput, param, order, getSourceDataBlock);
}
if (pLeft->nodeType == TSQL_NODE_EXPR) {
......@@ -459,11 +197,11 @@ void tExprTreeCalcTraverse(tExprNode *pExprs, int32_t numOfRows, char *pOutput,
* exprLeft + exprRight
* the type of returned value of one expression is always double float precious
*/
_bi_consumer_fn_t fp = tGetBiConsumerFn(TSDB_DATA_TYPE_DOUBLE, TSDB_DATA_TYPE_DOUBLE, pExprs->_node.optr);
_bi_consumer_fn_t fp = getArithmeticOperatorFn(TSDB_DATA_TYPE_DOUBLE, TSDB_DATA_TYPE_DOUBLE, pExprs->_node.optr);
fp(pLeftOutput, pRightOutput, numOfRows, numOfRows, pOutput, TSDB_ORDER_ASC);
} else if (pRight->nodeType == TSQL_NODE_COL) { // exprLeft + columnRight
_bi_consumer_fn_t fp = tGetBiConsumerFn(TSDB_DATA_TYPE_DOUBLE, pRight->pSchema->type, pExprs->_node.optr);
_bi_consumer_fn_t fp = getArithmeticOperatorFn(TSDB_DATA_TYPE_DOUBLE, pRight->pSchema->type, pExprs->_node.optr);
// set input buffer
char *pInputData = getSourceDataBlock(param, pRight->pSchema->name, pRight->pSchema->colId);
......@@ -475,14 +213,14 @@ void tExprTreeCalcTraverse(tExprNode *pExprs, int32_t numOfRows, char *pOutput,
}
} else if (pRight->nodeType == TSQL_NODE_VALUE) { // exprLeft + 12
_bi_consumer_fn_t fp = tGetBiConsumerFn(TSDB_DATA_TYPE_DOUBLE, pRight->pVal->nType, pExprs->_node.optr);
_bi_consumer_fn_t fp = getArithmeticOperatorFn(TSDB_DATA_TYPE_DOUBLE, pRight->pVal->nType, pExprs->_node.optr);
fp(pLeftOutput, &pRight->pVal->i64Key, numOfRows, 1, pOutput, TSDB_ORDER_ASC);
}
} else if (pLeft->nodeType == TSQL_NODE_COL) {
// column data specified on left-hand-side
char *pLeftInputData = getSourceDataBlock(param, pLeft->pSchema->name, pLeft->pSchema->colId);
if (pRight->nodeType == TSQL_NODE_EXPR) { // columnLeft + expr2
_bi_consumer_fn_t fp = tGetBiConsumerFn(pLeft->pSchema->type, TSDB_DATA_TYPE_DOUBLE, pExprs->_node.optr);
_bi_consumer_fn_t fp = getArithmeticOperatorFn(pLeft->pSchema->type, TSDB_DATA_TYPE_DOUBLE, pExprs->_node.optr);
if (order == TSDB_ORDER_DESC) {
reverseCopy(pdata, pLeftInputData, pLeft->pSchema->type, numOfRows);
......@@ -494,12 +232,12 @@ void tExprTreeCalcTraverse(tExprNode *pExprs, int32_t numOfRows, char *pOutput,
} else if (pRight->nodeType == TSQL_NODE_COL) { // columnLeft + columnRight
// column data specified on right-hand-side
char *pRightInputData = getSourceDataBlock(param, pRight->pSchema->name, pRight->pSchema->colId);
_bi_consumer_fn_t fp = tGetBiConsumerFn(pLeft->pSchema->type, pRight->pSchema->type, pExprs->_node.optr);
_bi_consumer_fn_t fp = getArithmeticOperatorFn(pLeft->pSchema->type, pRight->pSchema->type, pExprs->_node.optr);
// both columns are descending order, do not reverse the source data
fp(pLeftInputData, pRightInputData, numOfRows, numOfRows, pOutput, order);
} else if (pRight->nodeType == TSQL_NODE_VALUE) { // columnLeft + 12
_bi_consumer_fn_t fp = tGetBiConsumerFn(pLeft->pSchema->type, pRight->pVal->nType, pExprs->_node.optr);
_bi_consumer_fn_t fp = getArithmeticOperatorFn(pLeft->pSchema->type, pRight->pVal->nType, pExprs->_node.optr);
if (order == TSDB_ORDER_DESC) {
reverseCopy(pdata, pLeftInputData, pLeft->pSchema->type, numOfRows);
......@@ -511,13 +249,13 @@ void tExprTreeCalcTraverse(tExprNode *pExprs, int32_t numOfRows, char *pOutput,
} else {
// column data specified on left-hand-side
if (pRight->nodeType == TSQL_NODE_EXPR) { // 12 + expr2
_bi_consumer_fn_t fp = tGetBiConsumerFn(pLeft->pVal->nType, TSDB_DATA_TYPE_DOUBLE, pExprs->_node.optr);
_bi_consumer_fn_t fp = getArithmeticOperatorFn(pLeft->pVal->nType, TSDB_DATA_TYPE_DOUBLE, pExprs->_node.optr);
fp(&pLeft->pVal->i64Key, pRightOutput, 1, numOfRows, pOutput, TSDB_ORDER_ASC);
} else if (pRight->nodeType == TSQL_NODE_COL) { // 12 + columnRight
// column data specified on right-hand-side
char *pRightInputData = getSourceDataBlock(param, pRight->pSchema->name, pRight->pSchema->colId);
_bi_consumer_fn_t fp = tGetBiConsumerFn(pLeft->pVal->nType, pRight->pSchema->type, pExprs->_node.optr);
_bi_consumer_fn_t fp = getArithmeticOperatorFn(pLeft->pVal->nType, pRight->pSchema->type, pExprs->_node.optr);
if (order == TSDB_ORDER_DESC) {
reverseCopy(pdata, pRightInputData, pRight->pSchema->type, numOfRows);
......@@ -527,7 +265,7 @@ void tExprTreeCalcTraverse(tExprNode *pExprs, int32_t numOfRows, char *pOutput,
}
} else if (pRight->nodeType == TSQL_NODE_VALUE) { // 12 + 12
_bi_consumer_fn_t fp = tGetBiConsumerFn(pLeft->pVal->nType, pRight->pVal->nType, pExprs->_node.optr);
_bi_consumer_fn_t fp = getArithmeticOperatorFn(pLeft->pVal->nType, pRight->pVal->nType, pExprs->_node.optr);
fp(&pLeft->pVal->i64Key, &pRight->pVal->i64Key, 1, 1, pOutput, TSDB_ORDER_ASC);
}
}
......
......@@ -1507,7 +1507,7 @@ static void rowwiseApplyFunctions(SQueryRuntimeEnv *pRuntimeEnv, SDataStatis *pS
SColumnInfoData* pColumnInfoData = (SColumnInfoData *)taosArrayGet(pDataBlock, 0);
TSKEY *tsCols = (pColumnInfoData->info.type == TSDB_DATA_TYPE_TIMESTAMP)? (TSKEY*) pColumnInfoData->pData:NULL;
bool groupbyColumnValue = pRuntimeEnv->groupbyNormalCol;
bool groupbyColumnValue = pRuntimeEnv->groupbyColumn;
int16_t type = 0;
int16_t bytes = 0;
......@@ -1689,7 +1689,7 @@ static int32_t tableApplyFunctionsOnBlock(SQueryRuntimeEnv *pRuntimeEnv, SDataBl
STableQueryInfo* pTableQueryInfo = pQuery->current;
SResultRowInfo* pResultRowInfo = &pRuntimeEnv->windowResInfo;
if (pQuery->numOfFilterCols > 0 || pRuntimeEnv->pTsBuf != NULL || pRuntimeEnv->groupbyNormalCol) {
if (pQuery->numOfFilterCols > 0 || pRuntimeEnv->pTsBuf != NULL || pRuntimeEnv->groupbyColumn) {
rowwiseApplyFunctions(pRuntimeEnv, pStatis, pDataBlockInfo, pResultRowInfo, pDataBlock);
} else {
blockwiseApplyFunctions(pRuntimeEnv, pStatis, pDataBlockInfo, pResultRowInfo, searchFn, pDataBlock);
......@@ -1701,7 +1701,7 @@ static int32_t tableApplyFunctionsOnBlock(SQueryRuntimeEnv *pRuntimeEnv, SDataBl
// interval query with limit applied
int32_t numOfRes = 0;
if (QUERY_IS_INTERVAL_QUERY(pQuery) || pRuntimeEnv->groupbyNormalCol) {
if (QUERY_IS_INTERVAL_QUERY(pQuery) || pRuntimeEnv->groupbyColumn) {
numOfRes = pResultRowInfo->size;
updateResultRowIndex(pResultRowInfo, pTableQueryInfo, QUERY_IS_ASC_QUERY(pQuery), pRuntimeEnv->timeWindowInterpo);
} else { // projection query
......@@ -1972,7 +1972,7 @@ static int32_t setupQueryRuntimeEnv(SQueryRuntimeEnv *pRuntimeEnv, int16_t order
// if it is group by normal column, do not set output buffer, the output buffer is pResult
// fixed output query/multi-output query for normal table
if (!pRuntimeEnv->groupbyNormalCol && !pRuntimeEnv->stableQuery && !QUERY_IS_INTERVAL_QUERY(pRuntimeEnv->pQuery)) {
if (!pRuntimeEnv->groupbyColumn && !pRuntimeEnv->stableQuery && !QUERY_IS_INTERVAL_QUERY(pRuntimeEnv->pQuery)) {
resetDefaultResInfoOutputBuf(pRuntimeEnv);
}
......@@ -2091,7 +2091,7 @@ static bool isFixedOutputQuery(SQueryRuntimeEnv* pRuntimeEnv) {
}
// Note:top/bottom query is fixed output query
if (pRuntimeEnv->topBotQuery || pRuntimeEnv->groupbyNormalCol) {
if (pRuntimeEnv->topBotQuery || pRuntimeEnv->groupbyColumn) {
return true;
}
......@@ -2732,7 +2732,7 @@ static void ensureOutputBufferSimple(SQueryRuntimeEnv* pRuntimeEnv, int32_t capa
static void ensureOutputBuffer(SQueryRuntimeEnv* pRuntimeEnv, SDataBlockInfo* pBlockInfo) {
// in case of prj/diff query, ensure the output buffer is sufficient to accommodate the results of current block
SQuery* pQuery = pRuntimeEnv->pQuery;
if (!QUERY_IS_INTERVAL_QUERY(pQuery) && !pRuntimeEnv->groupbyNormalCol && !isFixedOutputQuery(pRuntimeEnv) && !isTSCompQuery(pQuery)) {
if (!QUERY_IS_INTERVAL_QUERY(pQuery) && !pRuntimeEnv->groupbyColumn && !isFixedOutputQuery(pRuntimeEnv) && !isTSCompQuery(pQuery)) {
SResultRec *pRec = &pQuery->rec;
if (pQuery->rec.capacity - pQuery->rec.rows < pBlockInfo->rows) {
......@@ -2956,50 +2956,6 @@ void setTagVal(SQueryRuntimeEnv *pRuntimeEnv, void *pTable, void *tsdb) {
}
}
static UNUSED_FUNC void doMerge(SQueryRuntimeEnv *pRuntimeEnv, int64_t timestamp, SResultRow *pWindowRes, bool mergeFlag) {
SQuery * pQuery = pRuntimeEnv->pQuery;
SQLFunctionCtx *pCtx = pRuntimeEnv->pCtx;
tFilePage *page = getResBufPage(pRuntimeEnv->pResultBuf, pWindowRes->pageId);
for (int32_t i = 0; i < pQuery->numOfOutput; ++i) {
int32_t functionId = pQuery->pExpr1[i].base.functionId;
if (!mergeFlag) {
pCtx[i].aOutputBuf = pCtx[i].aOutputBuf + pCtx[i].outputBytes;
pCtx[i].currentStage = FIRST_STAGE_MERGE;
RESET_RESULT_INFO(pCtx[i].resultInfo);
aAggs[functionId].init(&pCtx[i]);
}
pCtx[i].hasNull = true;
pCtx[i].nStartQueryTimestamp = timestamp;
pCtx[i].aInputElemBuf = getPosInResultPage(pRuntimeEnv, i, pWindowRes, page);
// in case of tag column, the tag information should be extracted from input buffer
if (functionId == TSDB_FUNC_TAG_DUMMY || functionId == TSDB_FUNC_TAG) {
tVariantDestroy(&pCtx[i].tag);
int32_t type = pCtx[i].outputType;
if (type == TSDB_DATA_TYPE_BINARY || type == TSDB_DATA_TYPE_NCHAR) {
tVariantCreateFromBinary(&pCtx[i].tag, varDataVal(pCtx[i].aInputElemBuf), varDataLen(pCtx[i].aInputElemBuf), type);
} else {
tVariantCreateFromBinary(&pCtx[i].tag, pCtx[i].aInputElemBuf, pCtx[i].inputBytes, pCtx[i].inputType);
}
}
}
for (int32_t i = 0; i < pQuery->numOfOutput; ++i) {
int32_t functionId = pQuery->pExpr1[i].base.functionId;
if (functionId == TSDB_FUNC_TAG_DUMMY) {
continue;
}
aAggs[functionId].distMergeFunc(&pCtx[i]);
}
}
static UNUSED_FUNC void printBinaryData(int32_t functionId, char *data, int32_t srcDataType) {
if (functionId == TSDB_FUNC_FIRST_DST || functionId == TSDB_FUNC_LAST_DST) {
switch (srcDataType) {
......@@ -3396,7 +3352,7 @@ void disableFuncInReverseScan(SQInfo *pQInfo) {
// group by normal columns and interval query on normal table
SResultRowInfo *pWindowResInfo = &pRuntimeEnv->windowResInfo;
if (pRuntimeEnv->groupbyNormalCol || QUERY_IS_INTERVAL_QUERY(pQuery)) {
if (pRuntimeEnv->groupbyColumn || QUERY_IS_INTERVAL_QUERY(pQuery)) {
disableFuncInReverseScanImpl(pRuntimeEnv, pWindowResInfo, order);
} else { // for simple result of table query,
for (int32_t j = 0; j < pQuery->numOfOutput; ++j) { // todo refactor
......@@ -3584,7 +3540,7 @@ bool needScanDataBlocksAgain(SQueryRuntimeEnv *pRuntimeEnv) {
SQuery *pQuery = pRuntimeEnv->pQuery;
bool toContinue = false;
if (pRuntimeEnv->groupbyNormalCol || QUERY_IS_INTERVAL_QUERY(pQuery)) {
if (pRuntimeEnv->groupbyColumn || QUERY_IS_INTERVAL_QUERY(pQuery)) {
// for each group result, call the finalize function for each column
SResultRowInfo *pWindowResInfo = &pRuntimeEnv->windowResInfo;
......@@ -3779,10 +3735,10 @@ void scanOneTableDataBlocks(SQueryRuntimeEnv *pRuntimeEnv, TSKEY start) {
void finalizeQueryResult(SQueryRuntimeEnv *pRuntimeEnv) {
SQuery *pQuery = pRuntimeEnv->pQuery;
if (pRuntimeEnv->groupbyNormalCol || QUERY_IS_INTERVAL_QUERY(pQuery)) {
if (pRuntimeEnv->groupbyColumn || QUERY_IS_INTERVAL_QUERY(pQuery)) {
// for each group result, call the finalize function for each column
SResultRowInfo *pWindowResInfo = &pRuntimeEnv->windowResInfo;
if (pRuntimeEnv->groupbyNormalCol) {
if (pRuntimeEnv->groupbyColumn) {
closeAllResultRows(pWindowResInfo);
}
......@@ -3836,7 +3792,7 @@ static STableQueryInfo *createTableQueryInfo(SQueryRuntimeEnv *pRuntimeEnv, void
pTableQueryInfo->cur.vgroupIndex = -1;
// set more initial size of interval/groupby query
if (QUERY_IS_INTERVAL_QUERY(pQuery) || pRuntimeEnv->groupbyNormalCol) {
if (QUERY_IS_INTERVAL_QUERY(pQuery) || pRuntimeEnv->groupbyColumn) {
int32_t initialSize = 128;
int32_t code = initResultRowInfo(&pTableQueryInfo->windowResInfo, initialSize, TSDB_DATA_TYPE_INT);
if (code != TSDB_CODE_SUCCESS) {
......@@ -4189,7 +4145,7 @@ static void stableApplyFunctionsOnBlock(SQueryRuntimeEnv *pRuntimeEnv, SDataBloc
SResultRowInfo * pResultRowInfo = &pTableQueryInfo->windowResInfo;
pQuery->pos = QUERY_IS_ASC_QUERY(pQuery)? 0 : pDataBlockInfo->rows - 1;
if (pQuery->numOfFilterCols > 0 || pRuntimeEnv->pTsBuf != NULL || pRuntimeEnv->groupbyNormalCol) {
if (pQuery->numOfFilterCols > 0 || pRuntimeEnv->pTsBuf != NULL || pRuntimeEnv->groupbyColumn) {
rowwiseApplyFunctions(pRuntimeEnv, pStatis, pDataBlockInfo, pResultRowInfo, pDataBlock);
} else {
blockwiseApplyFunctions(pRuntimeEnv, pStatis, pDataBlockInfo, pResultRowInfo, searchFn, pDataBlock);
......@@ -4232,7 +4188,7 @@ bool queryHasRemainResForTableQuery(SQueryRuntimeEnv* pRuntimeEnv) {
} else {
// there are results waiting for returned to client.
if (Q_STATUS_EQUAL(pQuery->status, QUERY_COMPLETED) &&
(pRuntimeEnv->groupbyNormalCol || QUERY_IS_INTERVAL_QUERY(pQuery)) &&
(pRuntimeEnv->groupbyColumn || QUERY_IS_INTERVAL_QUERY(pQuery)) &&
(pRuntimeEnv->windowResInfo.size > 0)) {
return true;
}
......@@ -4714,7 +4670,7 @@ int32_t doInitQInfo(SQInfo *pQInfo, STSBuf *pTsBuf, void *tsdb, int32_t vgId, bo
pRuntimeEnv->cur.vgroupIndex = -1;
pRuntimeEnv->stableQuery = isSTableQuery;
pRuntimeEnv->prevGroupId = INT32_MIN;
pRuntimeEnv->groupbyNormalCol = isGroupbyNormalCol(pQuery->pGroupbyExpr);
pRuntimeEnv->groupbyColumn = isGroupbyNormalCol(pQuery->pGroupbyExpr);
if (pTsBuf != NULL) {
int16_t order = (pQuery->order.order == pRuntimeEnv->pTsBuf->tsOrder) ? TSDB_ORDER_ASC : TSDB_ORDER_DESC;
......@@ -4734,7 +4690,7 @@ int32_t doInitQInfo(SQInfo *pQInfo, STSBuf *pTsBuf, void *tsdb, int32_t vgId, bo
if (!QUERY_IS_INTERVAL_QUERY(pQuery)) {
int16_t type = TSDB_DATA_TYPE_NULL;
if (pRuntimeEnv->groupbyNormalCol) { // group by columns not tags;
if (pRuntimeEnv->groupbyColumn) { // group by columns not tags;
type = getGroupbyColumnType(pQuery, pQuery->pGroupbyExpr);
} else {
type = TSDB_DATA_TYPE_INT; // group id
......@@ -4745,7 +4701,7 @@ int32_t doInitQInfo(SQInfo *pQInfo, STSBuf *pTsBuf, void *tsdb, int32_t vgId, bo
return code;
}
}
} else if (pRuntimeEnv->groupbyNormalCol || QUERY_IS_INTERVAL_QUERY(pQuery) || (!isSTableQuery)) {
} else if (pRuntimeEnv->groupbyColumn || QUERY_IS_INTERVAL_QUERY(pQuery) || (!isSTableQuery)) {
int32_t numOfResultRows = getInitialPageNum(pQInfo);
getIntermediateBufInfo(pRuntimeEnv, &ps, &rowsize);
code = createDiskbasedResultBuffer(&pRuntimeEnv->pResultBuf, rowsize, ps, TENMB, pQInfo);
......@@ -4754,7 +4710,7 @@ int32_t doInitQInfo(SQInfo *pQInfo, STSBuf *pTsBuf, void *tsdb, int32_t vgId, bo
}
int16_t type = TSDB_DATA_TYPE_NULL;
if (pRuntimeEnv->groupbyNormalCol) {
if (pRuntimeEnv->groupbyColumn) {
type = getGroupbyColumnType(pQuery, pQuery->pGroupbyExpr);
} else {
type = TSDB_DATA_TYPE_TIMESTAMP;
......@@ -4860,7 +4816,7 @@ static int64_t scanMultiTableDataBlocks(SQInfo *pQInfo) {
pQuery->current = *pTableQueryInfo;
doTableQueryInfoTimeWindowCheck(pQuery, *pTableQueryInfo);
if (!pRuntimeEnv->groupbyNormalCol) {
if (!pRuntimeEnv->groupbyColumn) {
setEnvForEachBlock(pQInfo, *pTableQueryInfo, &blockInfo);
}
......@@ -5118,7 +5074,7 @@ static void sequentialTableProcess(SQInfo *pQInfo) {
break;
}
}
} else if (pRuntimeEnv->groupbyNormalCol) { // group-by on normal columns query
} else if (pRuntimeEnv->groupbyColumn) { // group-by on normal columns query
while (pQInfo->groupIndex < numOfGroups) {
SArray *group = taosArrayGetP(pQInfo->tableGroupInfo.pGroupList, pQInfo->groupIndex);
......@@ -5639,7 +5595,7 @@ static void doSecondaryArithmeticProcess(SQuery* pQuery) {
}
} else {
arithSup.pArithExpr = pExpr;
tExprTreeCalcTraverse(arithSup.pArithExpr->pExpr, (int32_t)pQuery->rec.rows, data[i]->data, &arithSup, TSDB_ORDER_ASC,
arithmeticTreeTraverse(arithSup.pArithExpr->pExpr, (int32_t)pQuery->rec.rows, data[i]->data, &arithSup, TSDB_ORDER_ASC,
getArithemicInputSrc);
}
}
......@@ -5662,7 +5618,7 @@ static void doSecondaryArithmeticProcess(SQuery* pQuery) {
* select count(*)/top(field,k)/avg(field name) from table_name [where ts>now-1a];
* select count(*) from table_name group by status_column;
*/
static void tableFixedOutputProcess(SQInfo *pQInfo, STableQueryInfo* pTableInfo) {
static void tableAggregationProcess(SQInfo *pQInfo, STableQueryInfo* pTableInfo) {
SQueryRuntimeEnv *pRuntimeEnv = &pQInfo->runtimeEnv;
SQuery *pQuery = pRuntimeEnv->pQuery;
......@@ -5687,7 +5643,7 @@ static void tableFixedOutputProcess(SQInfo *pQInfo, STableQueryInfo* pTableInfo)
limitResults(pRuntimeEnv);
}
static void tableMultiOutputProcess(SQInfo *pQInfo, STableQueryInfo* pTableInfo) {
static void tableProjectionProcess(SQInfo *pQInfo, STableQueryInfo* pTableInfo) {
SQueryRuntimeEnv *pRuntimeEnv = &pQInfo->runtimeEnv;
SQuery *pQuery = pRuntimeEnv->pQuery;
......@@ -5752,7 +5708,7 @@ static void tableIntervalProcess(SQInfo *pQInfo, STableQueryInfo* pTableInfo) {
TSKEY newStartKey = QUERY_IS_ASC_QUERY(pQuery)? INT64_MIN:INT64_MAX;
// skip blocks without load the actual data block from file if no filter condition present
if (!pRuntimeEnv->groupbyNormalCol) {
if (!pRuntimeEnv->groupbyColumn) {
skipTimeInterval(pRuntimeEnv, &newStartKey);
if (pQuery->limit.offset > 0 && pQuery->numOfFilterCols == 0 && pRuntimeEnv->pFillInfo == NULL) {
setQueryStatus(pQuery, QUERY_COMPLETED);
......@@ -5849,13 +5805,13 @@ static void tableQueryImpl(SQInfo *pQInfo) {
STableQueryInfo* item = taosArrayGetP(g, 0);
// group by normal column, sliding window query, interval query are handled by interval query processor
if (QUERY_IS_INTERVAL_QUERY(pQuery) || pRuntimeEnv->groupbyNormalCol) { // interval (down sampling operation)
if (QUERY_IS_INTERVAL_QUERY(pQuery) || pRuntimeEnv->groupbyColumn) { // interval (down sampling operation)
tableIntervalProcess(pQInfo, item);
} else if (isFixedOutputQuery(pRuntimeEnv)) {
tableFixedOutputProcess(pQInfo, item);
tableAggregationProcess(pQInfo, item);
} else { // diff/add/multiply/subtract/division
assert(pQuery->checkBuffer == 1);
tableMultiOutputProcess(pQInfo, item);
tableProjectionProcess(pQInfo, item);
}
// record the total elapsed time
......@@ -5871,11 +5827,11 @@ static void stableQueryImpl(SQInfo *pQInfo) {
int64_t st = taosGetTimestampUs();
if (QUERY_IS_INTERVAL_QUERY(pQuery) ||
(isFixedOutputQuery(pRuntimeEnv) && (!isPointInterpoQuery(pQuery)) && (!pRuntimeEnv->groupbyNormalCol))) {
(isFixedOutputQuery(pRuntimeEnv) && (!isPointInterpoQuery(pQuery)) && (!pRuntimeEnv->groupbyColumn))) {
multiTableQueryProcess(pQInfo);
} else {
assert((pQuery->checkBuffer == 1 && pQuery->interval.interval == 0) || isPointInterpoQuery(pQuery) ||
pRuntimeEnv->groupbyNormalCol);
pRuntimeEnv->groupbyColumn);
sequentialTableProcess(pQInfo);
}
......
......@@ -2645,13 +2645,12 @@ SArray* createTableGroup(SArray* pTableList, STSchema* pTagSchema, SColIndex* pC
return pTableGroup;
}
static bool indexedNodeFilterFp(const void* pNode, void* param) {
static bool tableFilterFp(const void* pNode, void* param) {
tQueryInfo* pInfo = (tQueryInfo*) param;
STable* pTable = (STable*)(SL_GET_NODE_DATA((SSkipListNode*)pNode));
char* val = NULL;
char* val = NULL;
if (pInfo->sch.colId == TSDB_TBNAME_COLUMN_INDEX) {
val = (char*) TABLE_NAME(pTable);
} else {
......@@ -2706,15 +2705,17 @@ static bool indexedNodeFilterFp(const void* pNode, void* param) {
return true;
}
static void getTableListfromSkipList(tExprNode *pExpr, SSkipList *pSkipList, SArray *result, SExprTraverseSupp *param);
static int32_t doQueryTableList(STable* pSTable, SArray* pRes, tExprNode* pExpr) {
// query according to the expression tree
SExprTraverseSupp supp = {
.nodeFilterFn = (__result_filter_fn_t) indexedNodeFilterFp,
.nodeFilterFn = (__result_filter_fn_t) tableFilterFp,
.setupInfoFn = filterPrepare,
.pExtInfo = pSTable->tagSchema,
};
tExprTreeTraverse(pExpr, pSTable->pIndex, pRes, &supp);
getTableListfromSkipList(pExpr, pSTable->pIndex, pRes, &supp);
tExprTreeDestroy(&pExpr, destroyHelper);
return TSDB_CODE_SUCCESS;
}
......@@ -2956,3 +2957,235 @@ void tsdbDestroyTableGroup(STableGroupInfo *pGroupList) {
taosArrayDestroy(pGroupList->pGroupList);
pGroupList->numOfTables = 0;
}
static void applyFilterToSkipListNode(SSkipList *pSkipList, tExprNode *pExpr, SArray *pResult, SExprTraverseSupp *param) {
SSkipListIterator* iter = tSkipListCreateIter(pSkipList);
// Scan each node in the skiplist by using iterator
while (tSkipListIterNext(iter)) {
SSkipListNode *pNode = tSkipListIterGet(iter);
if (exprTreeApplayFilter(pExpr, pNode, param)) {
taosArrayPush(pResult, &(SL_GET_NODE_DATA(pNode)));
}
}
tSkipListDestroyIter(iter);
}
typedef struct {
char* v;
int32_t optr;
} SEndPoint;
typedef struct {
SEndPoint* start;
SEndPoint* end;
} SQueryCond;
// todo check for malloc failure
static int32_t setQueryCond(tQueryInfo *queryColInfo, SQueryCond* pCond) {
int32_t optr = queryColInfo->optr;
if (optr == TSDB_RELATION_GREATER || optr == TSDB_RELATION_GREATER_EQUAL ||
optr == TSDB_RELATION_EQUAL || optr == TSDB_RELATION_NOT_EQUAL) {
pCond->start = calloc(1, sizeof(SEndPoint));
pCond->start->optr = queryColInfo->optr;
pCond->start->v = queryColInfo->q;
} else if (optr == TSDB_RELATION_LESS || optr == TSDB_RELATION_LESS_EQUAL) {
pCond->end = calloc(1, sizeof(SEndPoint));
pCond->end->optr = queryColInfo->optr;
pCond->end->v = queryColInfo->q;
} else if (optr == TSDB_RELATION_IN || optr == TSDB_RELATION_LIKE) {
assert(0);
}
return TSDB_CODE_SUCCESS;
}
static void queryIndexedColumn(SSkipList* pSkipList, tQueryInfo* pQueryInfo, SArray* result) {
SSkipListIterator* iter = NULL;
SQueryCond cond = {0};
if (setQueryCond(pQueryInfo, &cond) != TSDB_CODE_SUCCESS) {
//todo handle error
}
if (cond.start != NULL) {
iter = tSkipListCreateIterFromVal(pSkipList, (char*) cond.start->v, pSkipList->type, TSDB_ORDER_ASC);
} else {
iter = tSkipListCreateIterFromVal(pSkipList, (char*)(cond.end ? cond.end->v: NULL), pSkipList->type, TSDB_ORDER_DESC);
}
if (cond.start != NULL) {
int32_t optr = cond.start->optr;
if (optr == TSDB_RELATION_EQUAL) { // equals
while(tSkipListIterNext(iter)) {
SSkipListNode* pNode = tSkipListIterGet(iter);
int32_t ret = pQueryInfo->compare(SL_GET_NODE_KEY(pSkipList, pNode), cond.start->v);
if (ret != 0) {
break;
}
STableKeyInfo info = {.pTable = (void*)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
}
} else if (optr == TSDB_RELATION_GREATER || optr == TSDB_RELATION_GREATER_EQUAL) { // greater equal
bool comp = true;
int32_t ret = 0;
while(tSkipListIterNext(iter)) {
SSkipListNode* pNode = tSkipListIterGet(iter);
if (comp) {
ret = pQueryInfo->compare(SL_GET_NODE_KEY(pSkipList, pNode), cond.start->v);
assert(ret >= 0);
}
if (ret == 0 && optr == TSDB_RELATION_GREATER) {
continue;
} else {
STableKeyInfo info = {.pTable = (void*)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
comp = false;
}
}
} else if (optr == TSDB_RELATION_NOT_EQUAL) { // not equal
bool comp = true;
while(tSkipListIterNext(iter)) {
SSkipListNode* pNode = tSkipListIterGet(iter);
comp = comp && (pQueryInfo->compare(SL_GET_NODE_KEY(pSkipList, pNode), cond.start->v) == 0);
if (comp) {
continue;
}
STableKeyInfo info = {.pTable = (void*)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
}
tSkipListDestroyIter(iter);
comp = true;
iter = tSkipListCreateIterFromVal(pSkipList, (char*) cond.start->v, pSkipList->type, TSDB_ORDER_DESC);
while(tSkipListIterNext(iter)) {
SSkipListNode* pNode = tSkipListIterGet(iter);
comp = comp && (pQueryInfo->compare(SL_GET_NODE_KEY(pSkipList, pNode), cond.start->v) == 0);
if (comp) {
continue;
}
STableKeyInfo info = {.pTable = (void*)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
}
} else {
assert(0);
}
} else {
int32_t optr = cond.end ? cond.end->optr : TSDB_RELATION_INVALID;
if (optr == TSDB_RELATION_LESS || optr == TSDB_RELATION_LESS_EQUAL) {
bool comp = true;
int32_t ret = 0;
while (tSkipListIterNext(iter)) {
SSkipListNode *pNode = tSkipListIterGet(iter);
if (comp) {
ret = pQueryInfo->compare(SL_GET_NODE_KEY(pSkipList, pNode), cond.end->v);
assert(ret <= 0);
}
if (ret == 0 && optr == TSDB_RELATION_LESS) {
continue;
} else {
STableKeyInfo info = {.pTable = (void *)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
comp = false; // no need to compare anymore
}
}
} else {
assert(pQueryInfo->optr == TSDB_RELATION_ISNULL || pQueryInfo->optr == TSDB_RELATION_NOTNULL);
while (tSkipListIterNext(iter)) {
SSkipListNode *pNode = tSkipListIterGet(iter);
bool isnull = isNull(SL_GET_NODE_KEY(pSkipList, pNode), pQueryInfo->sch.type);
if ((pQueryInfo->optr == TSDB_RELATION_ISNULL && isnull) ||
(pQueryInfo->optr == TSDB_RELATION_NOTNULL && (!isnull))) {
STableKeyInfo info = {.pTable = (void *)SL_GET_NODE_DATA(pNode), .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(result, &info);
}
}
}
}
free(cond.start);
free(cond.end);
tSkipListDestroyIter(iter);
}
static void queryIndexlessColumn(SSkipList* pSkipList, tQueryInfo* pQueryInfo, SArray* res, __result_filter_fn_t filterFp) {
SSkipListIterator* iter = tSkipListCreateIter(pSkipList);
while (tSkipListIterNext(iter)) {
bool addToResult = false;
SSkipListNode *pNode = tSkipListIterGet(iter);
char *pData = SL_GET_NODE_DATA(pNode);
tstr *name = (tstr*) tsdbGetTableName((void*) pData);
// todo speed up by using hash
if (pQueryInfo->sch.colId == TSDB_TBNAME_COLUMN_INDEX) {
if (pQueryInfo->optr == TSDB_RELATION_IN) {
addToResult = pQueryInfo->compare(name, pQueryInfo->q);
} else if (pQueryInfo->optr == TSDB_RELATION_LIKE) {
addToResult = !pQueryInfo->compare(name, pQueryInfo->q);
}
} else {
addToResult = filterFp(pNode, pQueryInfo);
}
if (addToResult) {
STableKeyInfo info = {.pTable = (void*)pData, .lastKey = TSKEY_INITIAL_VAL};
taosArrayPush(res, &info);
}
}
tSkipListDestroyIter(iter);
}
// Apply the filter expression to each node in the skiplist to acquire the qualified nodes in skip list
void getTableListfromSkipList(tExprNode *pExpr, SSkipList *pSkipList, SArray *result, SExprTraverseSupp *param) {
if (pExpr == NULL) {
return;
}
tExprNode *pLeft = pExpr->_node.pLeft;
tExprNode *pRight = pExpr->_node.pRight;
// column project
if (pLeft->nodeType != TSQL_NODE_EXPR && pRight->nodeType != TSQL_NODE_EXPR) {
assert(pLeft->nodeType == TSQL_NODE_COL && (pRight->nodeType == TSQL_NODE_VALUE || pRight->nodeType == TSQL_NODE_DUMMY));
param->setupInfoFn(pExpr, param->pExtInfo);
tQueryInfo *pQueryInfo = pExpr->_node.info;
if (pQueryInfo->indexed && pQueryInfo->optr != TSDB_RELATION_LIKE) {
queryIndexedColumn(pSkipList, pQueryInfo, result);
} else {
queryIndexlessColumn(pSkipList, pQueryInfo, result, param->nodeFilterFn);
}
return;
}
// The value of hasPK is always 0.
uint8_t weight = pLeft->_node.hasPK + pRight->_node.hasPK;
assert(weight == 0 && pSkipList != NULL && taosArrayGetSize(result) == 0);
//apply the hierarchical filter expression to every node in skiplist to find the qualified nodes
applyFilterToSkipListNode(pSkipList, pExpr, result, param);
}
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