/* * Copyright (c) 2019 TAOS Data, Inc. * * 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 . */ #define _DEFAULT_SOURCE #include "tdataformat.h" #include "tcoding.h" #include "tdatablock.h" #include "tlog.h" static int32_t tGetTagVal(uint8_t *p, STagVal *pTagVal, int8_t isJson); #pragma pack(push, 1) typedef struct { int16_t nCols; uint8_t idx[]; } STSKVRow; #pragma pack(pop) #define TSROW_IS_KV_ROW(r) ((r)->flags & TSROW_KV_ROW) #define BIT1_SIZE(n) (((n)-1) / 8 + 1) #define BIT2_SIZE(n) (((n)-1) / 4 + 1) #define SET_BIT1(p, i, v) ((p)[(i) / 8] = (p)[(i) / 8] & (~(((uint8_t)1) << ((i) % 8))) | ((v) << ((i) % 8))) #define SET_BIT2(p, i, v) ((p)[(i) / 4] = (p)[(i) / 4] & (~(((uint8_t)3) << ((i) % 4))) | ((v) << ((i) % 4))) #define GET_BIT1(p, i) (((p)[(i) / 8] >> ((i) % 8)) & ((uint8_t)1)) #define GET_BIT2(p, i) (((p)[(i) / 4] >> ((i) % 4)) & ((uint8_t)3)) // SValue int32_t tPutValue(uint8_t *p, SValue *pValue, int8_t type) { int32_t n = 0; if (IS_VAR_DATA_TYPE(type)) { n += tPutBinary(p ? p + n : p, pValue->pData, pValue->nData); } else { switch (type) { case TSDB_DATA_TYPE_BOOL: n += tPutI8(p ? p + n : p, pValue->i8 ? 1 : 0); break; case TSDB_DATA_TYPE_TINYINT: n += tPutI8(p ? p + n : p, pValue->i8); break; case TSDB_DATA_TYPE_SMALLINT: n += tPutI16(p ? p + n : p, pValue->i16); break; case TSDB_DATA_TYPE_INT: n += tPutI32(p ? p + n : p, pValue->i32); break; case TSDB_DATA_TYPE_BIGINT: n += tPutI64(p ? p + n : p, pValue->i64); break; case TSDB_DATA_TYPE_FLOAT: n += tPutFloat(p ? p + n : p, pValue->f); break; case TSDB_DATA_TYPE_DOUBLE: n += tPutDouble(p ? p + n : p, pValue->d); break; case TSDB_DATA_TYPE_TIMESTAMP: n += tPutI64(p ? p + n : p, pValue->ts); break; case TSDB_DATA_TYPE_UTINYINT: n += tPutU8(p ? p + n : p, pValue->u8); break; case TSDB_DATA_TYPE_USMALLINT: n += tPutU16(p ? p + n : p, pValue->u16); break; case TSDB_DATA_TYPE_UINT: n += tPutU32(p ? p + n : p, pValue->u32); break; case TSDB_DATA_TYPE_UBIGINT: n += tPutU64(p ? p + n : p, pValue->u64); break; default: ASSERT(0); } } return n; } int32_t tGetValue(uint8_t *p, SValue *pValue, int8_t type) { int32_t n = 0; if (IS_VAR_DATA_TYPE(type)) { n += tGetBinary(p, &pValue->pData, pValue ? &pValue->nData : NULL); } else { switch (type) { case TSDB_DATA_TYPE_BOOL: n += tGetI8(p, &pValue->i8); break; case TSDB_DATA_TYPE_TINYINT: n += tGetI8(p, &pValue->i8); break; case TSDB_DATA_TYPE_SMALLINT: n += tGetI16(p, &pValue->i16); break; case TSDB_DATA_TYPE_INT: n += tGetI32(p, &pValue->i32); break; case TSDB_DATA_TYPE_BIGINT: n += tGetI64(p, &pValue->i64); break; case TSDB_DATA_TYPE_FLOAT: n += tGetFloat(p, &pValue->f); break; case TSDB_DATA_TYPE_DOUBLE: n += tGetDouble(p, &pValue->d); break; case TSDB_DATA_TYPE_TIMESTAMP: n += tGetI64(p, &pValue->ts); break; case TSDB_DATA_TYPE_UTINYINT: n += tGetU8(p, &pValue->u8); break; case TSDB_DATA_TYPE_USMALLINT: n += tGetU16(p, &pValue->u16); break; case TSDB_DATA_TYPE_UINT: n += tGetU32(p, &pValue->u32); break; case TSDB_DATA_TYPE_UBIGINT: n += tGetU64(p, &pValue->u64); break; default: ASSERT(0); } } return n; } int tValueCmprFn(const SValue *pValue1, const SValue *pValue2, int8_t type) { // TODO return 0; } // STSRow2 ======================================================================== static void setBitMap(uint8_t *pb, uint8_t v, int32_t idx, uint8_t flags) { if (pb) { switch (flags & 0xf) { case TSROW_HAS_NULL | TSROW_HAS_NONE: case TSROW_HAS_VAL | TSROW_HAS_NONE: if (v) { SET_BIT1(pb, idx, (uint8_t)1); } else { SET_BIT1(pb, idx, (uint8_t)0); } break; case TSROW_HAS_VAL | TSROW_HAS_NULL: v = v - 1; SET_BIT1(pb, idx, v); break; case TSROW_HAS_VAL | TSROW_HAS_NULL | TSROW_HAS_NONE: SET_BIT2(pb, idx, v); break; default: ASSERT(0); } } } #define SET_IDX(p, i, n, f) \ do { \ if ((f)&TSROW_KV_SMALL) { \ ((uint8_t *)(p))[i] = (n); \ } else if ((f)&TSROW_KV_MID) { \ ((uint16_t *)(p))[i] = (n); \ } else { \ ((uint32_t *)(p))[i] = (n); \ } \ } while (0) int32_t tTSRowNew(STSRowBuilder *pBuilder, SArray *pArray, STSchema *pTSchema, STSRow2 **ppRow) { int32_t code = 0; STColumn *pTColumn; SColVal *pColVal; int32_t nColVal = taosArrayGetSize(pArray); int32_t iColVal; ASSERT(nColVal > 0); // try uint8_t flags = 0; uint32_t ntv = 0; uint32_t nkv = 0; int16_t nTag = 0; uint32_t maxIdx = 0; iColVal = 0; for (int32_t iColumn = 0; iColumn < pTSchema->numOfCols; iColumn++) { pTColumn = &pTSchema->columns[iColumn]; if (iColVal < nColVal) { pColVal = (SColVal *)taosArrayGet(pArray, iColVal); } else { pColVal = NULL; } if (iColumn == 0) { ASSERT(pColVal->cid == pTColumn->colId); ASSERT(pTColumn->type == TSDB_DATA_TYPE_TIMESTAMP); ASSERT(pTColumn->colId == PRIMARYKEY_TIMESTAMP_COL_ID); iColVal++; } else { if (pColVal) { if (pColVal->cid == pTColumn->colId) { iColVal++; if (pColVal->isNone) { flags |= TSROW_HAS_NONE; } else if (pColVal->isNull) { flags |= TSROW_HAS_NULL; maxIdx = nkv; nTag++; nkv += tPutI16v(NULL, -pTColumn->colId); } else { flags |= TSROW_HAS_VAL; maxIdx = nkv; nTag++; nkv += tPutI16v(NULL, pTColumn->colId); nkv += tPutValue(NULL, &pColVal->value, pTColumn->type); if (IS_VAR_DATA_TYPE(pTColumn->type)) { ntv += tPutValue(NULL, &pColVal->value, pTColumn->type); } } } else if (pColVal->cid > pTColumn->colId) { flags |= TSROW_HAS_NONE; } else { ASSERT(0); } } else { flags |= TSROW_HAS_NONE; } } } ASSERT(flags); // decide uint32_t nData = 0; uint32_t nDataT = 0; uint32_t nDataK = 0; if (flags == TSROW_HAS_NONE || flags == TSROW_HAS_NULL) { nData = 0; } else { switch (flags) { case TSROW_HAS_VAL: nDataT = pTSchema->flen + ntv; break; case TSROW_HAS_NULL | TSROW_HAS_NONE: nDataT = BIT1_SIZE(pTSchema->numOfCols - 1); break; case TSROW_HAS_VAL | TSROW_HAS_NONE: case TSROW_HAS_VAL | TSROW_HAS_NULL: nDataT = BIT1_SIZE(pTSchema->numOfCols - 1) + pTSchema->flen + ntv; break; case TSROW_HAS_VAL | TSROW_HAS_NULL | TSROW_HAS_NONE: nDataT = BIT2_SIZE(pTSchema->numOfCols - 1) + pTSchema->flen + ntv; break; default: break; ASSERT(0); } uint8_t tflags = 0; if (maxIdx <= UINT8_MAX) { nDataK = sizeof(STSKVRow) + sizeof(uint8_t) * nTag + nkv; tflags |= TSROW_KV_SMALL; } else if (maxIdx <= UINT16_MAX) { nDataK = sizeof(STSKVRow) + sizeof(uint16_t) * nTag + nkv; tflags |= TSROW_KV_MID; } else { nDataK = sizeof(STSKVRow) + sizeof(uint32_t) * nTag + nkv; tflags |= TSROW_KV_BIG; } if (nDataT <= nDataK) { nData = nDataT; } else { nData = nDataK; flags |= tflags; } } // alloc if (pBuilder) { // create from a builder if (nData == 0) { pBuilder->tsRow.nData = 0; pBuilder->tsRow.pData = NULL; } else { if (pBuilder->szBuf < nData) { uint8_t *p = taosMemoryRealloc(pBuilder->pBuf, nData); if (p == NULL) { code = TSDB_CODE_OUT_OF_MEMORY; goto _exit; } pBuilder->pBuf = p; pBuilder->szBuf = nData; } pBuilder->tsRow.nData = nData; pBuilder->tsRow.pData = pBuilder->pBuf; } *ppRow = &pBuilder->tsRow; } else { // create a new one *ppRow = (STSRow2 *)taosMemoryMalloc(sizeof(STSRow2)); if (*ppRow == NULL) { code = TSDB_CODE_OUT_OF_MEMORY; goto _exit; } if (nData == 0) { (*ppRow)->nData = 0; (*ppRow)->pData = NULL; } else { (*ppRow)->nData = nData; (*ppRow)->pData = taosMemoryMalloc(nData); if ((*ppRow)->pData == NULL) { taosMemoryFree(*ppRow); code = TSDB_CODE_OUT_OF_MEMORY; goto _exit; } } } // build (*ppRow)->flags = flags; (*ppRow)->sver = pTSchema->version; pColVal = (SColVal *)taosArrayGet(pArray, 0); (*ppRow)->ts = pColVal->value.ts; if ((*ppRow)->pData) { STSKVRow *pTSKVRow = NULL; uint8_t *pidx = NULL; uint8_t *pkv = NULL; uint8_t *pb = NULL; uint8_t *pf = NULL; uint8_t *ptv = NULL; nkv = 0; ntv = 0; iColVal = 1; if ((flags & 0xf0) == 0) { switch (flags & 0xf) { case TSROW_HAS_VAL: pf = (*ppRow)->pData; ptv = pf + pTSchema->flen; break; case TSROW_HAS_NULL | TSROW_HAS_NONE: pb = (*ppRow)->pData; break; case TSROW_HAS_VAL | TSROW_HAS_NONE: case TSROW_HAS_VAL | TSROW_HAS_NULL: pb = (*ppRow)->pData; pf = pb + BIT1_SIZE(pTSchema->numOfCols - 1); ptv = pf + pTSchema->flen; break; case TSROW_HAS_VAL | TSROW_HAS_NULL | TSROW_HAS_NONE: pb = (*ppRow)->pData; pf = pb + BIT2_SIZE(pTSchema->numOfCols - 1); ptv = pf + pTSchema->flen; break; default: ASSERT(0); break; } } else { pTSKVRow = (STSKVRow *)(*ppRow)->pData; pTSKVRow->nCols = 0; pidx = pTSKVRow->idx; if (flags & TSROW_KV_SMALL) { pkv = pidx + sizeof(uint8_t) * nTag; } else if (flags & TSROW_KV_MID) { pkv = pidx + sizeof(uint16_t) * nTag; } else { pkv = pidx + sizeof(uint32_t) * nTag; } } for (int32_t iColumn = 1; iColumn < pTSchema->numOfCols; iColumn++) { pTColumn = &pTSchema->columns[iColumn]; if (iColVal < nColVal) { pColVal = (SColVal *)taosArrayGet(pArray, iColVal); } else { pColVal = NULL; } if (pColVal) { if (pColVal->cid == pTColumn->colId) { iColVal++; if (pColVal->isNone) { goto _set_none; } else if (pColVal->isNull) { goto _set_null; } else { goto _set_value; } } else if (pColVal->cid > pTColumn->colId) { goto _set_none; } else { ASSERT(0); } } else { goto _set_none; } _set_none: if ((flags & 0xf0) == 0) { setBitMap(pb, 0, iColumn - 1, flags); if (flags & TSROW_HAS_VAL) { // set 0 if (IS_VAR_DATA_TYPE(pTColumn->type)) { *(VarDataOffsetT *)(pf + pTColumn->offset) = 0; } else { tPutValue(pf + pTColumn->offset, &((SValue){0}), pTColumn->type); } } } continue; _set_null: if ((flags & 0xf0) == 0) { setBitMap(pb, 1, iColumn - 1, flags); if (flags & TSROW_HAS_VAL) { // set 0 if (IS_VAR_DATA_TYPE(pTColumn->type)) { *(VarDataOffsetT *)(pf + pTColumn->offset) = 0; } else { tPutValue(pf + pTColumn->offset, &((SValue){0}), pTColumn->type); } } } else { SET_IDX(pidx, pTSKVRow->nCols, nkv, flags); pTSKVRow->nCols++; nkv += tPutI16v(pkv + nkv, -pTColumn->colId); } continue; _set_value: if ((flags & 0xf0) == 0) { setBitMap(pb, 2, iColumn - 1, flags); if (IS_VAR_DATA_TYPE(pTColumn->type)) { *(VarDataOffsetT *)(pf + pTColumn->offset) = ntv; ntv += tPutValue(ptv + ntv, &pColVal->value, pTColumn->type); } else { tPutValue(pf + pTColumn->offset, &pColVal->value, pTColumn->type); } } else { SET_IDX(pidx, pTSKVRow->nCols, nkv, flags); pTSKVRow->nCols++; nkv += tPutI16v(pkv + nkv, pColVal->cid); nkv += tPutValue(pkv + nkv, &pColVal->value, pTColumn->type); } continue; } } _exit: return code; } int32_t tTSRowClone(const STSRow2 *pRow, STSRow2 **ppRow) { int32_t code = 0; (*ppRow) = (STSRow2 *)taosMemoryMalloc(sizeof(**ppRow)); if (*ppRow == NULL) { code = TSDB_CODE_OUT_OF_MEMORY; goto _exit; } **ppRow = *pRow; (*ppRow)->pData = NULL; if (pRow->nData) { (*ppRow)->pData = taosMemoryMalloc(pRow->nData); if ((*ppRow)->pData == NULL) { taosMemoryFree(*ppRow); code = TSDB_CODE_OUT_OF_MEMORY; goto _exit; } memcpy((*ppRow)->pData, pRow->pData, pRow->nData); } _exit: return code; } void tTSRowFree(STSRow2 *pRow) { if (pRow) { if (pRow->pData) taosMemoryFree(pRow->pData); taosMemoryFree(pRow); } } void tTSRowGet(STSRow2 *pRow, STSchema *pTSchema, int32_t iCol, SColVal *pColVal) { uint8_t isTuple = ((pRow->flags & 0xf0) == 0) ? 1 : 0; STColumn *pTColumn = &pTSchema->columns[iCol]; uint8_t flags = pRow->flags & (uint8_t)0xf; SValue value; ASSERT(iCol < pTSchema->numOfCols); ASSERT(flags); ASSERT(pRow->sver == pTSchema->version); if (iCol == 0) { value.ts = pRow->ts; goto _return_value; } if (flags == TSROW_HAS_NONE) { goto _return_none; } else if (flags == TSROW_HAS_NULL) { goto _return_null; } ASSERT(pRow->nData && pRow->pData); if (isTuple) { uint8_t *pb = pRow->pData; uint8_t *pf = NULL; uint8_t *pv = NULL; uint8_t *p; uint8_t b; // bit switch (flags) { case TSROW_HAS_VAL: pf = pb; break; case TSROW_HAS_NULL | TSROW_HAS_NONE: b = GET_BIT1(pb, iCol - 1); if (b == 0) { goto _return_none; } else { goto _return_null; } case TSROW_HAS_VAL | TSROW_HAS_NONE: b = GET_BIT1(pb, iCol - 1); if (b == 0) { goto _return_none; } else { pf = pb + BIT1_SIZE(pTSchema->numOfCols - 1); break; } case TSROW_HAS_VAL | TSROW_HAS_NULL: b = GET_BIT1(pb, iCol - 1); if (b == 0) { goto _return_null; } else { pf = pb + BIT1_SIZE(pTSchema->numOfCols - 1); break; } case TSROW_HAS_VAL | TSROW_HAS_NULL | TSROW_HAS_NONE: b = GET_BIT2(pb, iCol - 1); if (b == 0) { goto _return_none; } else if (b == 1) { goto _return_null; } else { pf = pb + BIT2_SIZE(pTSchema->numOfCols - 1); break; } default: ASSERT(0); } ASSERT(pf); p = pf + pTColumn->offset; if (IS_VAR_DATA_TYPE(pTColumn->type)) { pv = pf + pTSchema->flen; p = pv + *(VarDataOffsetT *)p; } tGetValue(p, &value, pTColumn->type); goto _return_value; } else { STSKVRow *pRowK = (STSKVRow *)pRow->pData; int16_t lidx = 0; int16_t ridx = pRowK->nCols - 1; uint8_t *p; int16_t midx; uint32_t n; int16_t cid; ASSERT(pRowK->nCols > 0); if (pRow->flags & TSROW_KV_SMALL) { p = pRow->pData + sizeof(STSKVRow) + sizeof(uint8_t) * pRowK->nCols; } else if (pRow->flags & TSROW_KV_MID) { p = pRow->pData + sizeof(STSKVRow) + sizeof(uint16_t) * pRowK->nCols; } else if (pRow->flags & TSROW_KV_BIG) { p = pRow->pData + sizeof(STSKVRow) + sizeof(uint32_t) * pRowK->nCols; } else { ASSERT(0); } while (lidx <= ridx) { midx = (lidx + ridx) / 2; if (pRow->flags & TSROW_KV_SMALL) { n = ((uint8_t *)pRowK->idx)[midx]; } else if (pRow->flags & TSROW_KV_MID) { n = ((uint16_t *)pRowK->idx)[midx]; } else { n = ((uint32_t *)pRowK->idx)[midx]; } n += tGetI16v(p + n, &cid); if (TABS(cid) == pTColumn->colId) { if (cid < 0) { goto _return_null; } else { n += tGetValue(p + n, &value, pTColumn->type); goto _return_value; } return; } else if (TABS(cid) > pTColumn->colId) { ridx = midx - 1; } else { lidx = midx + 1; } } // not found, return NONE goto _return_none; } _return_none: *pColVal = COL_VAL_NONE(pTColumn->colId); return; _return_null: *pColVal = COL_VAL_NULL(pTColumn->colId); return; _return_value: *pColVal = COL_VAL_VALUE(pTColumn->colId, value); return; } int32_t tTSRowToArray(STSRow2 *pRow, STSchema *pTSchema, SArray **ppArray) { int32_t code = 0; SColVal cv; (*ppArray) = taosArrayInit(pTSchema->numOfCols, sizeof(SColVal)); if (*ppArray == NULL) { code = TSDB_CODE_OUT_OF_MEMORY; goto _exit; } for (int32_t iColumn = 0; iColumn < pTSchema->numOfCols; iColumn++) { tTSRowGet(pRow, pTSchema, iColumn, &cv); taosArrayPush(*ppArray, &cv); } _exit: return code; } int32_t tPutTSRow(uint8_t *p, STSRow2 *pRow) { int32_t n = 0; n += tPutI64(p ? p + n : p, pRow->ts); n += tPutI8(p ? p + n : p, pRow->flags); n += tPutI32v(p ? p + n : p, pRow->sver); ASSERT(pRow->flags & 0xf); switch (pRow->flags & 0xf) { case TSROW_HAS_NONE: case TSROW_HAS_NULL: ASSERT(pRow->nData == 0); ASSERT(pRow->pData == NULL); break; default: ASSERT(pRow->nData && pRow->pData); n += tPutBinary(p ? p + n : p, pRow->pData, pRow->nData); break; } return n; } int32_t tGetTSRow(uint8_t *p, STSRow2 *pRow) { int32_t n = 0; n += tGetI64(p + n, &pRow->ts); n += tGetI8(p + n, &pRow->flags); n += tGetI32v(p + n, &pRow->sver); ASSERT(pRow->flags); switch (pRow->flags & 0xf) { case TSROW_HAS_NONE: case TSROW_HAS_NULL: pRow->nData = 0; pRow->pData = NULL; break; default: n += tGetBinary(p + n, &pRow->pData, &pRow->nData); break; } return n; } // STSchema int32_t tTSchemaCreate(int32_t sver, SSchema *pSchema, int32_t ncols, STSchema **ppTSchema) { *ppTSchema = (STSchema *)taosMemoryMalloc(sizeof(STSchema) + sizeof(STColumn) * ncols); if (*ppTSchema == NULL) { terrno = TSDB_CODE_OUT_OF_MEMORY; return -1; } (*ppTSchema)->numOfCols = ncols; (*ppTSchema)->version = sver; (*ppTSchema)->flen = 0; (*ppTSchema)->vlen = 0; (*ppTSchema)->tlen = 0; for (int32_t iCol = 0; iCol < ncols; iCol++) { SSchema *pColumn = &pSchema[iCol]; STColumn *pTColumn = &((*ppTSchema)->columns[iCol]); pTColumn->colId = pColumn->colId; pTColumn->type = pColumn->type; pTColumn->flags = pColumn->flags; pTColumn->bytes = pColumn->bytes; pTColumn->offset = (*ppTSchema)->flen; // skip first column if (iCol) { (*ppTSchema)->flen += TYPE_BYTES[pColumn->type]; if (IS_VAR_DATA_TYPE(pColumn->type)) { (*ppTSchema)->vlen += (pColumn->bytes + 5); } } } return 0; } void tTSchemaDestroy(STSchema *pTSchema) { if (pTSchema) taosMemoryFree(pTSchema); } // STSRowBuilder // STag static int tTagValCmprFn(const void *p1, const void *p2) { if (((STagVal *)p1)->cid < ((STagVal *)p2)->cid) { return -1; } else if (((STagVal *)p1)->cid > ((STagVal *)p2)->cid) { return 1; } return 0; } static int tTagValJsonCmprFn(const void *p1, const void *p2) { return strcmp(((STagVal *)p1)[0].pKey, ((STagVal *)p2)[0].pKey); } static void debugPrintTagVal(int8_t type, const void *val, int32_t vlen, const char *tag, int32_t ln) { switch (type) { case TSDB_DATA_TYPE_JSON: case TSDB_DATA_TYPE_VARCHAR: case TSDB_DATA_TYPE_NCHAR: { char tmpVal[32] = {0}; strncpy(tmpVal, val, vlen > 31 ? 31 : vlen); printf("%s:%d type:%d vlen:%d, val:\"%s\"\n", tag, ln, (int32_t)type, vlen, tmpVal); } break; case TSDB_DATA_TYPE_FLOAT: printf("%s:%d type:%d vlen:%d, val:%f\n", tag, ln, (int32_t)type, vlen, *(float *)val); break; case TSDB_DATA_TYPE_DOUBLE: printf("%s:%d type:%d vlen:%d, val:%lf\n", tag, ln, (int32_t)type, vlen, *(double *)val); break; case TSDB_DATA_TYPE_BOOL: printf("%s:%d type:%d vlen:%d, val:%" PRIu8 "\n", tag, ln, (int32_t)type, vlen, *(uint8_t *)val); break; case TSDB_DATA_TYPE_TINYINT: printf("%s:%d type:%d vlen:%d, val:%" PRIi8 "\n", tag, ln, (int32_t)type, vlen, *(int8_t *)val); break; case TSDB_DATA_TYPE_SMALLINT: printf("%s:%d type:%d vlen:%d, val:%" PRIi16 "\n", tag, ln, (int32_t)type, vlen, *(int16_t *)val); break; case TSDB_DATA_TYPE_INT: printf("%s:%d type:%d vlen:%d, val:%" PRIi32 "\n", tag, ln, (int32_t)type, vlen, *(int32_t *)val); break; case TSDB_DATA_TYPE_BIGINT: printf("%s:%d type:%d vlen:%d, val:%" PRIi64 "\n", tag, ln, (int32_t)type, vlen, *(int64_t *)val); break; case TSDB_DATA_TYPE_TIMESTAMP: printf("%s:%d type:%d vlen:%d, val:%" PRIi64 "\n", tag, ln, (int32_t)type, vlen, *(int64_t *)val); break; case TSDB_DATA_TYPE_UTINYINT: printf("%s:%d type:%d vlen:%d, val:%" PRIu8 "\n", tag, ln, (int32_t)type, vlen, *(uint8_t *)val); break; case TSDB_DATA_TYPE_USMALLINT: printf("%s:%d type:%d vlen:%d, val:%" PRIu16 "\n", tag, ln, (int32_t)type, vlen, *(uint16_t *)val); break; case TSDB_DATA_TYPE_UINT: printf("%s:%d type:%d vlen:%d, val:%" PRIu32 "\n", tag, ln, (int32_t)type, vlen, *(uint32_t *)val); break; case TSDB_DATA_TYPE_UBIGINT: printf("%s:%d type:%d vlen:%d, val:%" PRIu64 "\n", tag, ln, (int32_t)type, vlen, *(uint64_t *)val); break; case TSDB_DATA_TYPE_NULL: printf("%s:%d type:%d vlen:%d, val:%" PRIi8 "\n", tag, ln, (int32_t)type, vlen, *(int8_t *)val); break; default: ASSERT(0); break; } } void debugPrintSTag(STag *pTag, const char *tag, int32_t ln) { int8_t isJson = pTag->flags & TD_TAG_JSON; int8_t isLarge = pTag->flags & TD_TAG_LARGE; uint8_t *p = NULL; int16_t offset = 0; if (isLarge) { p = (uint8_t *)&((int16_t *)pTag->idx)[pTag->nTag]; } else { p = (uint8_t *)&pTag->idx[pTag->nTag]; } printf("%s:%d >>> STAG === %s:%s, len: %d, nTag: %d, sver:%d\n", tag, ln, isJson ? "json" : "normal", isLarge ? "large" : "small", (int32_t)pTag->len, (int32_t)pTag->nTag, pTag->ver); for (uint16_t n = 0; n < pTag->nTag; ++n) { if (isLarge) { offset = ((int16_t *)pTag->idx)[n]; } else { offset = pTag->idx[n]; } STagVal tagVal = {0}; if (isJson) { tagVal.pKey = (char *)POINTER_SHIFT(p, offset); } else { tagVal.cid = *(int16_t *)POINTER_SHIFT(p, offset); } printf("%s:%d loop[%d-%d] offset=%d\n", __func__, __LINE__, (int32_t)pTag->nTag, (int32_t)n, (int32_t)offset); tGetTagVal(p + offset, &tagVal, isJson); if (IS_VAR_DATA_TYPE(tagVal.type)) { debugPrintTagVal(tagVal.type, tagVal.pData, tagVal.nData, __func__, __LINE__); } else { debugPrintTagVal(tagVal.type, &tagVal.i64, tDataTypes[tagVal.type].bytes, __func__, __LINE__); } } printf("\n"); } void debugCheckTags(STag *pTag) { switch (pTag->flags) { case 0x0: case 0x20: case 0x40: case 0x60: break; default: ASSERT(0); } ASSERT(pTag->nTag <= 128 && pTag->nTag >= 0); ASSERT(pTag->ver <= 512 && pTag->ver >= 0); // temp condition for pTag->ver } static int32_t tPutTagVal(uint8_t *p, STagVal *pTagVal, int8_t isJson) { int32_t n = 0; // key if (isJson) { n += tPutCStr(p ? p + n : p, pTagVal->pKey); } else { n += tPutI16v(p ? p + n : p, pTagVal->cid); } // type n += tPutI8(p ? p + n : p, pTagVal->type); // value if (IS_VAR_DATA_TYPE(pTagVal->type)) { n += tPutBinary(p ? p + n : p, pTagVal->pData, pTagVal->nData); } else { p = p ? p + n : p; n += tDataTypes[pTagVal->type].bytes; if (p) memcpy(p, &(pTagVal->i64), tDataTypes[pTagVal->type].bytes); } return n; } static int32_t tGetTagVal(uint8_t *p, STagVal *pTagVal, int8_t isJson) { int32_t n = 0; // key if (isJson) { n += tGetCStr(p + n, &pTagVal->pKey); } else { n += tGetI16v(p + n, &pTagVal->cid); } // type n += tGetI8(p + n, &pTagVal->type); // value if (IS_VAR_DATA_TYPE(pTagVal->type)) { n += tGetBinary(p + n, &pTagVal->pData, &pTagVal->nData); } else { memcpy(&(pTagVal->i64), p + n, tDataTypes[pTagVal->type].bytes); n += tDataTypes[pTagVal->type].bytes; } return n; } int32_t tTagNew(SArray *pArray, int32_t version, int8_t isJson, STag **ppTag) { int32_t code = 0; uint8_t *p = NULL; int16_t n = 0; int16_t nTag = taosArrayGetSize(pArray); int32_t szTag = 0; int8_t isLarge = 0; // sort if (isJson) { qsort(pArray->pData, nTag, sizeof(STagVal), tTagValJsonCmprFn); } else { qsort(pArray->pData, nTag, sizeof(STagVal), tTagValCmprFn); } // get size for (int16_t iTag = 0; iTag < nTag; iTag++) { szTag += tPutTagVal(NULL, (STagVal *)taosArrayGet(pArray, iTag), isJson); } if (szTag <= INT8_MAX) { szTag = szTag + sizeof(STag) + sizeof(int8_t) * nTag; } else { szTag = szTag + sizeof(STag) + sizeof(int16_t) * nTag; isLarge = 1; } ASSERT(szTag <= INT16_MAX); // build tag (*ppTag) = (STag *)taosMemoryCalloc(szTag, 1); if ((*ppTag) == NULL) { code = TSDB_CODE_OUT_OF_MEMORY; goto _err; } (*ppTag)->flags = 0; if (isJson) { (*ppTag)->flags |= TD_TAG_JSON; } if (isLarge) { (*ppTag)->flags |= TD_TAG_LARGE; } (*ppTag)->len = szTag; (*ppTag)->nTag = nTag; (*ppTag)->ver = version; if (isLarge) { p = (uint8_t *)&((int16_t *)(*ppTag)->idx)[nTag]; } else { p = (uint8_t *)&(*ppTag)->idx[nTag]; } n = 0; for (int16_t iTag = 0; iTag < nTag; iTag++) { if (isLarge) { ((int16_t *)(*ppTag)->idx)[iTag] = n; } else { (*ppTag)->idx[iTag] = n; } n += tPutTagVal(p + n, (STagVal *)taosArrayGet(pArray, iTag), isJson); } #ifdef TD_DEBUG_PRINT_TAG debugPrintSTag(*ppTag, __func__, __LINE__); #endif debugCheckTags(*ppTag); // TODO: remove this line after debug return code; _err: return code; } void tTagFree(STag *pTag) { if (pTag) taosMemoryFree(pTag); } char *tTagValToData(const STagVal *value, bool isJson) { if (!value) return NULL; char *data = NULL; int8_t typeBytes = 0; if (isJson) { typeBytes = CHAR_BYTES; } if (IS_VAR_DATA_TYPE(value->type)) { data = taosMemoryCalloc(1, typeBytes + VARSTR_HEADER_SIZE + value->nData); if (data == NULL) return NULL; if (isJson) *data = value->type; varDataLen(data + typeBytes) = value->nData; memcpy(varDataVal(data + typeBytes), value->pData, value->nData); } else { data = ((char *)&(value->i64)) - typeBytes; // json with type } return data; } bool tTagGet(const STag *pTag, STagVal *pTagVal) { int16_t lidx = 0; int16_t ridx = pTag->nTag - 1; int16_t midx; uint8_t *p; int8_t isJson = pTag->flags & TD_TAG_JSON; int8_t isLarge = pTag->flags & TD_TAG_LARGE; int16_t offset; STagVal tv; int c; if (isLarge) { p = (uint8_t *)&((int16_t *)pTag->idx)[pTag->nTag]; } else { p = (uint8_t *)&pTag->idx[pTag->nTag]; } pTagVal->type = TSDB_DATA_TYPE_NULL; pTagVal->pData = NULL; pTagVal->nData = 0; while (lidx <= ridx) { midx = (lidx + ridx) / 2; if (isLarge) { offset = ((int16_t *)pTag->idx)[midx]; } else { offset = pTag->idx[midx]; } tGetTagVal(p + offset, &tv, isJson); if (isJson) { c = tTagValJsonCmprFn(pTagVal, &tv); } else { c = tTagValCmprFn(pTagVal, &tv); } if (c < 0) { ridx = midx - 1; } else if (c > 0) { lidx = midx + 1; } else { memcpy(pTagVal, &tv, sizeof(tv)); return true; } } return false; } int32_t tEncodeTag(SEncoder *pEncoder, const STag *pTag) { return tEncodeBinary(pEncoder, (const uint8_t *)pTag, pTag->len); } int32_t tDecodeTag(SDecoder *pDecoder, STag **ppTag) { return tDecodeBinary(pDecoder, (uint8_t **)ppTag, NULL); } int32_t tTagToValArray(const STag *pTag, SArray **ppArray) { int32_t code = 0; uint8_t *p = NULL; STagVal tv = {0}; int8_t isLarge = pTag->flags & TD_TAG_LARGE; int16_t offset = 0; if (isLarge) { p = (uint8_t *)&((int16_t *)pTag->idx)[pTag->nTag]; } else { p = (uint8_t *)&pTag->idx[pTag->nTag]; } (*ppArray) = taosArrayInit(pTag->nTag + 1, sizeof(STagVal)); if (*ppArray == NULL) { code = TSDB_CODE_OUT_OF_MEMORY; goto _err; } for (int16_t iTag = 0; iTag < pTag->nTag; iTag++) { if (isLarge) { offset = ((int16_t *)pTag->idx)[iTag]; } else { offset = pTag->idx[iTag]; } tGetTagVal(p + offset, &tv, pTag->flags & TD_TAG_JSON); taosArrayPush(*ppArray, &tv); } return code; _err: return code; } #if 1 // =================================================================================================================== static void dataColSetNEleNull(SDataCol *pCol, int nEle); int tdAllocMemForCol(SDataCol *pCol, int maxPoints) { int spaceNeeded = pCol->bytes * maxPoints; if (IS_VAR_DATA_TYPE(pCol->type)) { spaceNeeded += sizeof(VarDataOffsetT) * maxPoints; } #ifdef TD_SUPPORT_BITMAP int32_t nBitmapBytes = (int32_t)TD_BITMAP_BYTES(maxPoints); spaceNeeded += (int)nBitmapBytes; // TODO: Currently, the compression of bitmap parts is affiliated to the column data parts, thus allocate 1 more // TYPE_BYTES as to comprise complete TYPE_BYTES. Otherwise, invalid read/write would be triggered. // spaceNeeded += TYPE_BYTES[pCol->type]; // the bitmap part is append as a single part since 2022.04.03, thus // remove the additional space #endif if (pCol->spaceSize < spaceNeeded) { void *ptr = taosMemoryRealloc(pCol->pData, spaceNeeded); if (ptr == NULL) { uDebug("malloc failure, size:%" PRId64 " failed, reason:%s", (int64_t)spaceNeeded, strerror(errno)); return -1; } else { pCol->pData = ptr; pCol->spaceSize = spaceNeeded; } } #ifdef TD_SUPPORT_BITMAP if (IS_VAR_DATA_TYPE(pCol->type)) { pCol->pBitmap = POINTER_SHIFT(pCol->pData, pCol->bytes * maxPoints); pCol->dataOff = POINTER_SHIFT(pCol->pBitmap, nBitmapBytes); } else { pCol->pBitmap = POINTER_SHIFT(pCol->pData, pCol->bytes * maxPoints); } #else if (IS_VAR_DATA_TYPE(pCol->type)) { pCol->dataOff = POINTER_SHIFT(pCol->pData, pCol->bytes * maxPoints); } #endif return 0; } /** * Duplicate the schema and return a new object */ STSchema *tdDupSchema(const STSchema *pSchema) { int tlen = sizeof(STSchema) + sizeof(STColumn) * schemaNCols(pSchema); STSchema *tSchema = (STSchema *)taosMemoryMalloc(tlen); if (tSchema == NULL) return NULL; memcpy((void *)tSchema, (void *)pSchema, tlen); return tSchema; } /** * Encode a schema to dst, and return the next pointer */ int tdEncodeSchema(void **buf, STSchema *pSchema) { int tlen = 0; tlen += taosEncodeFixedI32(buf, schemaVersion(pSchema)); tlen += taosEncodeFixedI32(buf, schemaNCols(pSchema)); for (int i = 0; i < schemaNCols(pSchema); i++) { STColumn *pCol = schemaColAt(pSchema, i); tlen += taosEncodeFixedI8(buf, colType(pCol)); tlen += taosEncodeFixedI8(buf, colFlags(pCol)); tlen += taosEncodeFixedI16(buf, colColId(pCol)); tlen += taosEncodeFixedI16(buf, colBytes(pCol)); } return tlen; } /** * Decode a schema from a binary. */ void *tdDecodeSchema(void *buf, STSchema **pRSchema) { int version = 0; int numOfCols = 0; STSchemaBuilder schemaBuilder; buf = taosDecodeFixedI32(buf, &version); buf = taosDecodeFixedI32(buf, &numOfCols); if (tdInitTSchemaBuilder(&schemaBuilder, version) < 0) return NULL; for (int i = 0; i < numOfCols; i++) { col_type_t type = 0; int8_t flags = 0; col_id_t colId = 0; col_bytes_t bytes = 0; buf = taosDecodeFixedI8(buf, &type); buf = taosDecodeFixedI8(buf, &flags); buf = taosDecodeFixedI16(buf, &colId); buf = taosDecodeFixedI32(buf, &bytes); if (tdAddColToSchema(&schemaBuilder, type, flags, colId, bytes) < 0) { tdDestroyTSchemaBuilder(&schemaBuilder); return NULL; } } *pRSchema = tdGetSchemaFromBuilder(&schemaBuilder); tdDestroyTSchemaBuilder(&schemaBuilder); return buf; } int tdInitTSchemaBuilder(STSchemaBuilder *pBuilder, schema_ver_t version) { if (pBuilder == NULL) return -1; pBuilder->tCols = 256; pBuilder->columns = (STColumn *)taosMemoryMalloc(sizeof(STColumn) * pBuilder->tCols); if (pBuilder->columns == NULL) return -1; tdResetTSchemaBuilder(pBuilder, version); return 0; } void tdDestroyTSchemaBuilder(STSchemaBuilder *pBuilder) { if (pBuilder) { taosMemoryFreeClear(pBuilder->columns); } } void tdResetTSchemaBuilder(STSchemaBuilder *pBuilder, schema_ver_t version) { pBuilder->nCols = 0; pBuilder->tlen = 0; pBuilder->flen = 0; pBuilder->vlen = 0; pBuilder->version = version; } int32_t tdAddColToSchema(STSchemaBuilder *pBuilder, int8_t type, int8_t flags, col_id_t colId, col_bytes_t bytes) { if (!isValidDataType(type)) return -1; if (pBuilder->nCols >= pBuilder->tCols) { pBuilder->tCols *= 2; STColumn *columns = (STColumn *)taosMemoryRealloc(pBuilder->columns, sizeof(STColumn) * pBuilder->tCols); if (columns == NULL) return -1; pBuilder->columns = columns; } STColumn *pCol = &(pBuilder->columns[pBuilder->nCols]); colSetType(pCol, type); colSetColId(pCol, colId); colSetFlags(pCol, flags); if (pBuilder->nCols == 0) { colSetOffset(pCol, 0); } else { STColumn *pTCol = &(pBuilder->columns[pBuilder->nCols - 1]); colSetOffset(pCol, pTCol->offset + TYPE_BYTES[pTCol->type]); } if (IS_VAR_DATA_TYPE(type)) { colSetBytes(pCol, bytes); pBuilder->tlen += (TYPE_BYTES[type] + bytes); pBuilder->vlen += bytes - sizeof(VarDataLenT); } else { colSetBytes(pCol, TYPE_BYTES[type]); pBuilder->tlen += TYPE_BYTES[type]; pBuilder->vlen += TYPE_BYTES[type]; } pBuilder->nCols++; pBuilder->flen += TYPE_BYTES[type]; ASSERT(pCol->offset < pBuilder->flen); return 0; } STSchema *tdGetSchemaFromBuilder(STSchemaBuilder *pBuilder) { if (pBuilder->nCols <= 0) return NULL; int tlen = sizeof(STSchema) + sizeof(STColumn) * pBuilder->nCols; STSchema *pSchema = (STSchema *)taosMemoryMalloc(tlen); if (pSchema == NULL) return NULL; schemaVersion(pSchema) = pBuilder->version; schemaNCols(pSchema) = pBuilder->nCols; schemaTLen(pSchema) = pBuilder->tlen; schemaFLen(pSchema) = pBuilder->flen; schemaVLen(pSchema) = pBuilder->vlen; #ifdef TD_SUPPORT_BITMAP schemaTLen(pSchema) += (int)TD_BITMAP_BYTES(schemaNCols(pSchema)); #endif memcpy(schemaColAt(pSchema, 0), pBuilder->columns, sizeof(STColumn) * pBuilder->nCols); return pSchema; } void dataColInit(SDataCol *pDataCol, STColumn *pCol, int maxPoints) { pDataCol->type = colType(pCol); pDataCol->colId = colColId(pCol); pDataCol->bytes = colBytes(pCol); pDataCol->offset = colOffset(pCol) + 0; // TD_DATA_ROW_HEAD_SIZE; pDataCol->len = 0; } static FORCE_INLINE const void *tdGetColDataOfRowUnsafe(SDataCol *pCol, int row) { if (IS_VAR_DATA_TYPE(pCol->type)) { return POINTER_SHIFT(pCol->pData, pCol->dataOff[row]); } else { return POINTER_SHIFT(pCol->pData, TYPE_BYTES[pCol->type] * row); } } bool isNEleNull(SDataCol *pCol, int nEle) { if (isAllRowsNull(pCol)) return true; for (int i = 0; i < nEle; ++i) { if (!isNull(tdGetColDataOfRowUnsafe(pCol, i), pCol->type)) return false; } return true; } void *dataColSetOffset(SDataCol *pCol, int nEle) { ASSERT(((pCol->type == TSDB_DATA_TYPE_BINARY) || (pCol->type == TSDB_DATA_TYPE_NCHAR))); void *tptr = pCol->pData; // char *tptr = (char *)(pCol->pData); VarDataOffsetT offset = 0; for (int i = 0; i < nEle; ++i) { pCol->dataOff[i] = offset; offset += varDataTLen(tptr); tptr = POINTER_SHIFT(tptr, varDataTLen(tptr)); } return POINTER_SHIFT(tptr, varDataTLen(tptr)); } SDataCols *tdNewDataCols(int maxCols, int maxRows) { SDataCols *pCols = (SDataCols *)taosMemoryCalloc(1, sizeof(SDataCols)); if (pCols == NULL) { uDebug("malloc failure, size:%" PRId64 " failed, reason:%s", (int64_t)sizeof(SDataCols), strerror(errno)); return NULL; } pCols->maxPoints = maxRows; pCols->maxCols = maxCols; pCols->numOfRows = 0; pCols->numOfCols = 0; pCols->bitmapMode = TSDB_BITMODE_DEFAULT; if (maxCols > 0) { pCols->cols = (SDataCol *)taosMemoryCalloc(maxCols, sizeof(SDataCol)); if (pCols->cols == NULL) { uDebug("malloc failure, size:%" PRId64 " failed, reason:%s", (int64_t)sizeof(SDataCol) * maxCols, strerror(errno)); tdFreeDataCols(pCols); return NULL; } #if 0 // no need as calloc used int i; for (i = 0; i < maxCols; i++) { pCols->cols[i].spaceSize = 0; pCols->cols[i].len = 0; pCols->cols[i].pData = NULL; pCols->cols[i].dataOff = NULL; } #endif } return pCols; } int tdInitDataCols(SDataCols *pCols, STSchema *pSchema) { int i; int oldMaxCols = pCols->maxCols; if (schemaNCols(pSchema) > oldMaxCols) { pCols->maxCols = schemaNCols(pSchema); void *ptr = (SDataCol *)taosMemoryRealloc(pCols->cols, sizeof(SDataCol) * pCols->maxCols); if (ptr == NULL) return -1; pCols->cols = ptr; for (i = oldMaxCols; i < pCols->maxCols; ++i) { pCols->cols[i].pData = NULL; pCols->cols[i].dataOff = NULL; pCols->cols[i].pBitmap = NULL; pCols->cols[i].spaceSize = 0; } } #if 0 tdResetDataCols(pCols); // redundant loop to reset len/blen to 0, already reset in following dataColInit(...) #endif pCols->numOfRows = 0; pCols->bitmapMode = TSDB_BITMODE_DEFAULT; pCols->numOfCols = schemaNCols(pSchema); for (i = 0; i < schemaNCols(pSchema); ++i) { dataColInit(pCols->cols + i, schemaColAt(pSchema, i), pCols->maxPoints); } return 0; } SDataCols *tdFreeDataCols(SDataCols *pCols) { int i; if (pCols) { if (pCols->cols) { int maxCols = pCols->maxCols; for (i = 0; i < maxCols; ++i) { SDataCol *pCol = &pCols->cols[i]; taosMemoryFreeClear(pCol->pData); } taosMemoryFree(pCols->cols); pCols->cols = NULL; } taosMemoryFree(pCols); } return NULL; } void tdResetDataCols(SDataCols *pCols) { if (pCols != NULL) { pCols->numOfRows = 0; pCols->bitmapMode = 0; for (int i = 0; i < pCols->maxCols; ++i) { dataColReset(pCols->cols + i); } } } #endif