/****************************************************************************** * * Project: OpenGIS Simple Features Reference Implementation * Purpose: C API to create a MiraMon layer * Author: Abel Pau, a.pau@creaf.uab.cat, based on the MiraMon codes, * mainly written by Xavier Pons, Joan Maso (correctly written * "Mas0xF3"), Abel Pau, Nuria Julia (N0xFAria Juli0xE0), * Xavier Calaf, Lluis (Llu0xEDs) Pesquer and Alaitz Zabala, from * CREAF and Universitat Autonoma (Aut0xF2noma) de Barcelona. * For a complete list of contributors: * https://www.miramon.cat/eng/QuiSom.htm ****************************************************************************** * Copyright (c) 2024, Xavier Pons * * SPDX-License-Identifier: MIT ****************************************************************************/ #include "mm_wrlayr.h" #include "../../../frmts/miramon_common/mm_gdal_functions.h" #include "../../../frmts/miramon_common/mm_gdal_constants.h" #include "mm_rdlayr.h" // For MM_ReadExtendedDBFHeader() #include "gdal.h" // For GDALDatasetH #include "ogr_srs_api.h" // For OSRGetAuthorityCode #include "cpl_string.h" // For CPL_ENC_UTF8 CPL_C_START // Necessary for compiling in GDAL project /* -------------------------------------------------------------------- */ /* COMING FROM mm_gdal_functions.c/h but only used here */ /* -------------------------------------------------------------------- */ // MiraMon feature table descriptors #define MM_MAX_IDENTIFIER_SIZE 50 #define MM_a_WITH_GRAVE 224 #define MM_a_WITH_ACUTE 225 #define MM_e_WITH_GRAVE 232 #define MM_e_WITH_ACUTE 233 #define MM_i_WITH_ACUTE 237 #define MM_o_WITH_GRAVE 242 #define MM_o_WITH_ACUTE 243 #define MM_u_WITH_ACUTE 250 #define MM_A_WITH_GRAVE 192 #define MM_A_WITH_ACUTE 193 #define MM_E_WITH_GRAVE 200 #define MM_E_WITH_ACUTE 201 #define MM_I_WITH_ACUTE 205 #define MM_O_WITH_GRAVE 210 #define MM_O_WITH_ACUTE 211 #define MM_U_WITH_ACUTE 218 // In case of diaeresis use "_WITH_DIAERESIS" // In case of cedilla use "_WITH_CEDILLA" // In case of tilde use "_WITH_TILDE" // In case of middle dot use "_MIDDLE_DOT" char szInternalGraphicIdentifierEng[MM_MAX_IDENTIFIER_SIZE]; char szInternalGraphicIdentifierCat[MM_MAX_IDENTIFIER_SIZE]; char szInternalGraphicIdentifierSpa[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfVerticesEng[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfVerticesCat[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfVerticesSpa[MM_MAX_IDENTIFIER_SIZE]; char szLengthOfAarcEng[MM_MAX_IDENTIFIER_SIZE]; char szLengthOfAarcCat[MM_MAX_IDENTIFIER_SIZE]; char szLengthOfAarcSpa[MM_MAX_IDENTIFIER_SIZE]; char szInitialNodeEng[MM_MAX_IDENTIFIER_SIZE]; char szInitialNodeCat[MM_MAX_IDENTIFIER_SIZE]; char szInitialNodeSpa[MM_MAX_IDENTIFIER_SIZE]; char szFinalNodeEng[MM_MAX_IDENTIFIER_SIZE]; char szFinalNodeCat[MM_MAX_IDENTIFIER_SIZE]; char szFinalNodeSpa[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfArcsToNodeEng[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfArcsToNodeCat[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfArcsToNodeSpa[MM_MAX_IDENTIFIER_SIZE]; char szNodeTypeEng[MM_MAX_IDENTIFIER_SIZE]; char szNodeTypeCat[MM_MAX_IDENTIFIER_SIZE]; char szNodeTypeSpa[MM_MAX_IDENTIFIER_SIZE]; char szPerimeterOfThePolygonEng[MM_MAX_IDENTIFIER_SIZE]; char szPerimeterOfThePolygonCat[MM_MAX_IDENTIFIER_SIZE]; char szPerimeterOfThePolygonSpa[MM_MAX_IDENTIFIER_SIZE]; char szAreaOfThePolygonEng[MM_MAX_IDENTIFIER_SIZE]; char szAreaOfThePolygonCat[MM_MAX_IDENTIFIER_SIZE]; char szAreaOfThePolygonSpa[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfArcsEng[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfArcsCat[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfArcsSpa[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfElementaryPolygonsEng[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfElementaryPolygonsCat[MM_MAX_IDENTIFIER_SIZE]; char szNumberOfElementaryPolygonsSpa[MM_MAX_IDENTIFIER_SIZE]; void MM_FillFieldDescriptorByLanguage(void); /* -------------------------------------------------------------------- */ /* Header Functions */ /* -------------------------------------------------------------------- */ int MMAppendBlockToBuffer(struct MM_FLUSH_INFO *FlushInfo); void MMInitBoundingBox(struct MMBoundingBox *dfBB); int MMWriteAHArcSection(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_FILE_OFFSET DiskOffset); int MMWriteNHNodeSection(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_FILE_OFFSET DiskOffset); int MMWritePHPolygonSection(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_FILE_OFFSET DiskOffset); int MMAppendIntegerDependingOnVersion( struct MiraMonVectLayerInfo *hMiraMonLayer, struct MM_FLUSH_INFO *FlushInfo, uint32_t *nUL32, GUInt64 nUI64); int MMMoveFromFileToFile(VSILFILE *pSrcFile, VSILFILE *pDestFile, MM_FILE_OFFSET *nOffset); int MMResizeZSectionDescrPointer(struct MM_ZD **pZDescription, GUInt64 *nMax, GUInt64 nNum, GUInt64 nIncr, GUInt64 nProposedMax); int MMResizeArcHeaderPointer(struct MM_AH **pArcHeader, GUInt64 *nMax, GUInt64 nNum, GUInt64 nIncr, GUInt64 nProposedMax); int MMResizeNodeHeaderPointer(struct MM_NH **pNodeHeader, GUInt64 *nMax, GUInt64 nNum, GUInt64 nIncr, GUInt64 nProposedMax); int MMResizePolHeaderPointer(struct MM_PH **pPolHeader, GUInt64 *nMax, GUInt64 nNum, GUInt64 nIncr, GUInt64 nProposedMax); void MMUpdateBoundingBoxXY(struct MMBoundingBox *dfBB, struct MM_POINT_2D *pCoord); void MMUpdateBoundingBox(struct MMBoundingBox *dfBBToBeAct, struct MMBoundingBox *dfBBWithData); int MMCheckVersionFor3DOffset(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_INTERNAL_FID nElemCount, MM_FILE_OFFSET nOffsetAL, MM_FILE_OFFSET nZLOffset); int MMCheckVersionOffset(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_FILE_OFFSET OffsetToCheck); int MMCheckVersionForFID(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_INTERNAL_FID FID); // Extended DBF functions int MMCreateMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MM_POINT_2D *pFirstCoord); int MMAddDBFRecordToMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature); int MMAddPointRecordToMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature, MM_INTERNAL_FID nElemCount); int MMAddArcRecordToMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature, MM_INTERNAL_FID nElemCount, struct MM_AH *pArcHeader); int MMAddNodeRecordToMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_INTERNAL_FID nElemCount, struct MM_NH *pNodeHeader); int MMAddPolygonRecordToMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature, MM_INTERNAL_FID nElemCount, MM_N_VERTICES_TYPE nVerticesCount, struct MM_PH *pPolHeader); int MMCloseMMBD_XP(struct MiraMonVectLayerInfo *hMiraMonLayer); void MMDestroyMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer); /* -------------------------------------------------------------------- */ /* Layer Functions: Version */ /* -------------------------------------------------------------------- */ int MMGetVectorVersion(struct MM_TH *pTopHeader) { if ((pTopHeader->aLayerVersion[0] == ' ' || pTopHeader->aLayerVersion[0] == '0') && pTopHeader->aLayerVersion[1] == '1' && pTopHeader->aLayerSubVersion == '1') return MM_32BITS_VERSION; if ((pTopHeader->aLayerVersion[0] == ' ' || pTopHeader->aLayerVersion[0] == '0') && pTopHeader->aLayerVersion[1] == '2' && pTopHeader->aLayerSubVersion == '0') return MM_64BITS_VERSION; return MM_UNKNOWN_VERSION; } static void MMSet1_1Version(struct MM_TH *pTopHeader) { pTopHeader->aLayerVersion[0] = ' '; pTopHeader->aLayerVersion[1] = '1'; pTopHeader->aLayerSubVersion = '1'; } static void MMSet2_0Version(struct MM_TH *pTopHeader) { pTopHeader->aLayerVersion[0] = ' '; pTopHeader->aLayerVersion[1] = '2'; pTopHeader->aLayerSubVersion = '0'; } /* -------------------------------------------------------------------- */ /* Layer Functions: Header */ /* -------------------------------------------------------------------- */ int MMReadHeader(VSILFILE *pF, struct MM_TH *pMMHeader) { char dot; uint32_t NCount; int32_t reservat4 = 0L; pMMHeader->Flag = 0x0; if (VSIFSeekL(pF, 0, SEEK_SET)) return 1; if (VSIFReadL(pMMHeader->aFileType, 1, 3, pF) != 3) return 1; if (VSIFReadL(pMMHeader->aLayerVersion, 1, 2, pF) != 2) return 1; if (VSIFReadL(&dot, 1, 1, pF) != 1) return 1; if (VSIFReadL(&pMMHeader->aLayerSubVersion, 1, 1, pF) != 1) return 1; if (VSIFReadL(&pMMHeader->Flag, sizeof(pMMHeader->Flag), 1, pF) != 1) return 1; if (VSIFReadL(&pMMHeader->hBB.dfMinX, sizeof(pMMHeader->hBB.dfMinX), 1, pF) != 1) return 1; if (VSIFReadL(&pMMHeader->hBB.dfMaxX, sizeof(pMMHeader->hBB.dfMaxX), 1, pF) != 1) return 1; if (VSIFReadL(&pMMHeader->hBB.dfMinY, sizeof(pMMHeader->hBB.dfMinY), 1, pF) != 1) return 1; if (VSIFReadL(&pMMHeader->hBB.dfMaxY, sizeof(pMMHeader->hBB.dfMaxY), 1, pF) != 1) return 1; if (pMMHeader->aLayerVersion[0] == ' ' && pMMHeader->aLayerVersion[1] == '1') { if (VSIFReadL(&NCount, sizeof(NCount), 1, pF) != 1) return 1; pMMHeader->nElemCount = (MM_INTERNAL_FID)NCount; if (VSIFReadL(&reservat4, 4, 1, pF) != 1) return 1; } else if (pMMHeader->aLayerVersion[0] == ' ' && pMMHeader->aLayerVersion[1] == '2') { if (VSIFReadL(&(pMMHeader->nElemCount), sizeof(pMMHeader->nElemCount), 1, pF) != 1) return 1; if (VSIFReadL(&reservat4, 4, 1, pF) != 1) return 1; if (VSIFReadL(&reservat4, 4, 1, pF) != 1) return 1; } if (pMMHeader->Flag & MM_LAYER_3D_INFO) pMMHeader->bIs3d = 1; if (pMMHeader->Flag & MM_LAYER_MULTIPOLYGON) pMMHeader->bIsMultipolygon = 1; return 0; } static int MMWriteHeader(VSILFILE *pF, struct MM_TH *pMMHeader) { char dot = '.'; uint32_t NCount; int32_t reservat4 = 0L; MM_INTERNAL_FID nNumber1 = 1, nNumber0 = 0; if (!pF) return 0; pMMHeader->Flag = MM_CREATED_USING_MIRAMON; // Created from MiraMon if (pMMHeader->bIs3d) pMMHeader->Flag |= MM_LAYER_3D_INFO; // 3D if (pMMHeader->bIsMultipolygon) pMMHeader->Flag |= MM_LAYER_MULTIPOLYGON; // Multipolygon. if (pMMHeader->aFileType[0] == 'P' && pMMHeader->aFileType[1] == 'O' && pMMHeader->aFileType[2] == 'L') pMMHeader->Flag |= MM_BIT_5_ON; // Explicital polygons if (VSIFSeekL(pF, 0, SEEK_SET)) return 1; if (VSIFWriteL(pMMHeader->aFileType, 1, 3, pF) != 3) return 1; if (VSIFWriteL(pMMHeader->aLayerVersion, 1, 2, pF) != 2) return 1; if (VSIFWriteL(&dot, 1, 1, pF) != 1) return 1; if (VSIFWriteL(&pMMHeader->aLayerSubVersion, 1, 1, pF) != 1) return 1; if (VSIFWriteL(&pMMHeader->Flag, sizeof(pMMHeader->Flag), 1, pF) != 1) return 1; if (VSIFWriteL(&pMMHeader->hBB.dfMinX, sizeof(pMMHeader->hBB.dfMinX), 1, pF) != 1) return 1; if (VSIFWriteL(&pMMHeader->hBB.dfMaxX, sizeof(pMMHeader->hBB.dfMaxX), 1, pF) != 1) return 1; if (VSIFWriteL(&pMMHeader->hBB.dfMinY, sizeof(pMMHeader->hBB.dfMinY), 1, pF) != 1) return 1; if (VSIFWriteL(&pMMHeader->hBB.dfMaxY, sizeof(pMMHeader->hBB.dfMaxY), 1, pF) != 1) return 1; if (pMMHeader->aLayerVersion[0] == ' ' && pMMHeader->aLayerVersion[1] == '1') { NCount = (uint32_t)pMMHeader->nElemCount; if (VSIFWriteL(&NCount, sizeof(NCount), 1, pF) != 1) return 1; if (VSIFWriteL(&reservat4, 4, 1, pF) != 1) return 1; } else if (pMMHeader->aLayerVersion[0] == ' ' && pMMHeader->aLayerVersion[1] == '2') { if (VSIFWriteL(&(pMMHeader->nElemCount), sizeof(pMMHeader->nElemCount), 1, pF) != 1) return 1; // Next part of the file (don't apply for the moment) if (VSIFWriteL(&nNumber1, sizeof(nNumber1), 1, pF) != 1) return 1; if (VSIFWriteL(&nNumber0, sizeof(nNumber0), 1, pF) != 1) return 1; // Reserved bytes if (VSIFWriteL(&reservat4, 4, 1, pF) != 1) return 1; if (VSIFWriteL(&reservat4, 4, 1, pF) != 1) return 1; } return 0; } /* -------------------------------------------------------------------- */ /* Layer Functions: Z section */ /* -------------------------------------------------------------------- */ int MMReadZSection(struct MiraMonVectLayerInfo *hMiraMonLayer, VSILFILE *pF, struct MM_ZSection *pZSection) { int32_t reservat4 = 0L; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPoint) { if (MMCheckSize_t(hMiraMonLayer->TopHeader.nElemCount, MM_SIZE_OF_TL)) return 1; if (hMiraMonLayer->TopHeader.nElemCount * MM_SIZE_OF_TL > UINT64_MAX - hMiraMonLayer->nHeaderDiskSize) return 1; pZSection->ZSectionOffset = hMiraMonLayer->nHeaderDiskSize + hMiraMonLayer->TopHeader.nElemCount * MM_SIZE_OF_TL; } else if (hMiraMonLayer->bIsArc && !(hMiraMonLayer->bIsPolygon) && hMiraMonLayer->TopHeader.nElemCount > 0) { const struct MM_AH *pArcHeader = &(hMiraMonLayer->MMArc .pArcHeader[hMiraMonLayer->TopHeader.nElemCount - 1]); if (MMCheckSize_t(pArcHeader->nElemCount, MM_SIZE_OF_COORDINATE)) return 1; if (pArcHeader->nElemCount * MM_SIZE_OF_COORDINATE > UINT64_MAX - pArcHeader->nOffset) return 1; // Z section begins just after last coordinate of the last arc pZSection->ZSectionOffset = pArcHeader->nOffset + pArcHeader->nElemCount * MM_SIZE_OF_COORDINATE; } else if (hMiraMonLayer->bIsPolygon && hMiraMonLayer->MMPolygon.TopArcHeader.nElemCount > 0) { const struct MM_AH *pArcHeader = &(hMiraMonLayer->MMPolygon.MMArc .pArcHeader[hMiraMonLayer->MMPolygon.TopArcHeader.nElemCount - 1]); if (MMCheckSize_t(pArcHeader->nElemCount, MM_SIZE_OF_COORDINATE)) return 1; if (pArcHeader->nElemCount * MM_SIZE_OF_COORDINATE > UINT64_MAX - pArcHeader->nOffset) return 1; // Z section begins just after last coordinate of the last arc pZSection->ZSectionOffset = pArcHeader->nOffset + pArcHeader->nElemCount * MM_SIZE_OF_COORDINATE; } else return 1; if (pF) { if (VSIFSeekL(pF, pZSection->ZSectionOffset, SEEK_SET)) return 1; if (VSIFReadL(&reservat4, 4, 1, pF) != 1) return 1; pZSection->ZSectionOffset += 4; if (VSIFReadL(&reservat4, 4, 1, pF) != 1) return 1; pZSection->ZSectionOffset += 4; if (VSIFReadL(&reservat4, 4, 1, pF) != 1) return 1; pZSection->ZSectionOffset += 4; if (VSIFReadL(&reservat4, 4, 1, pF) != 1) return 1; pZSection->ZSectionOffset += 4; if (VSIFReadL(&pZSection->ZHeader.dfBBminz, sizeof(pZSection->ZHeader.dfBBminz), 1, pF) != 1) return 1; pZSection->ZSectionOffset += sizeof(pZSection->ZHeader.dfBBminz); if (VSIFReadL(&pZSection->ZHeader.dfBBmaxz, sizeof(pZSection->ZHeader.dfBBmaxz), 1, pF) != 1) return 1; pZSection->ZSectionOffset += sizeof(pZSection->ZHeader.dfBBmaxz); } return 0; } static int MMWriteZSection(VSILFILE *pF, struct MM_ZSection *pZSection) { int32_t reservat4 = 0L; if (VSIFSeekL(pF, pZSection->ZSectionOffset, SEEK_SET)) return 1; if (VSIFWriteL(&reservat4, 4, 1, pF) != 1) return 1; if (VSIFWriteL(&reservat4, 4, 1, pF) != 1) return 1; if (VSIFWriteL(&reservat4, 4, 1, pF) != 1) return 1; if (VSIFWriteL(&reservat4, 4, 1, pF) != 1) return 1; pZSection->ZSectionOffset += 16; if (VSIFWriteL(&pZSection->ZHeader.dfBBminz, sizeof(pZSection->ZHeader.dfBBminz), 1, pF) != 1) return 1; pZSection->ZSectionOffset += sizeof(pZSection->ZHeader.dfBBminz); if (VSIFWriteL(&pZSection->ZHeader.dfBBmaxz, sizeof(pZSection->ZHeader.dfBBmaxz), 1, pF) != 1) return 1; pZSection->ZSectionOffset += sizeof(pZSection->ZHeader.dfBBmaxz); return 0; } int MMReadZDescriptionHeaders(struct MiraMonVectLayerInfo *hMiraMonLayer, VSILFILE *pF, MM_INTERNAL_FID nElements, struct MM_ZSection *pZSection) { struct MM_FLUSH_INFO FlushTMP; char *pBuffer = nullptr; MM_INTERNAL_FID nIndex = 0; MM_FILE_OFFSET nBlockSize; struct MM_ZD *pZDescription; if (!hMiraMonLayer) return 1; if (!pZSection) return 1; if (!nElements) return 0; // No elements to read pZDescription = pZSection->pZDescription; nBlockSize = nElements * pZSection->nZDDiskSize; if (MMInitFlush(&FlushTMP, pF, nBlockSize, &pBuffer, pZSection->ZSectionOffset, 0)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockWhereToSaveOrRead = (void *)pBuffer; if (MMReadFlush(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } for (nIndex = 0; nIndex < nElements; nIndex++) { FlushTMP.SizeOfBlockToBeSaved = sizeof((pZDescription + nIndex)->dfBBminz); FlushTMP.pBlockToBeSaved = (void *)&(pZDescription + nIndex)->dfBBminz; if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.SizeOfBlockToBeSaved = sizeof((pZDescription + nIndex)->dfBBmaxz); FlushTMP.pBlockToBeSaved = (void *)&(pZDescription + nIndex)->dfBBmaxz; if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.SizeOfBlockToBeSaved = sizeof((pZDescription + nIndex)->nZCount); FlushTMP.pBlockToBeSaved = (void *)&(pZDescription + nIndex)->nZCount; if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } if (hMiraMonLayer->LayerVersion == MM_64BITS_VERSION) { FlushTMP.SizeOfBlockToBeSaved = 4; FlushTMP.pBlockToBeSaved = (void *)nullptr; if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } } if (MMReadOffsetDependingOnVersion(hMiraMonLayer, &FlushTMP, &(pZDescription + nIndex)->nOffsetZ)) { if (pBuffer) VSIFree(pBuffer); return 1; } } if (pBuffer) VSIFree(pBuffer); return 0; } static int MMWriteZDescriptionHeaders(struct MiraMonVectLayerInfo *hMiraMonLayer, VSILFILE *pF, MM_INTERNAL_FID nElements, struct MM_ZSection *pZSection) { struct MM_FLUSH_INFO FlushTMP; char *pBuffer = nullptr; uint32_t nUL32; MM_INTERNAL_FID nIndex = 0; MM_FILE_OFFSET nOffsetDiff; struct MM_ZD *pZDescription; if (!hMiraMonLayer) return 1; if (!pF) return 1; if (!pZSection) return 1; pZDescription = pZSection->pZDescription; nOffsetDiff = pZSection->ZSectionOffset + nElements * pZSection->nZDDiskSize; if (MMInitFlush(&FlushTMP, pF, MM_1MB, &pBuffer, pZSection->ZSectionOffset, 0)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockWhereToSaveOrRead = (void *)pBuffer; for (nIndex = 0; nIndex < nElements; nIndex++) { FlushTMP.SizeOfBlockToBeSaved = sizeof((pZDescription + nIndex)->dfBBminz); FlushTMP.pBlockToBeSaved = (void *)&(pZDescription + nIndex)->dfBBminz; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.SizeOfBlockToBeSaved = sizeof((pZDescription + nIndex)->dfBBmaxz); FlushTMP.pBlockToBeSaved = (void *)&(pZDescription + nIndex)->dfBBmaxz; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.SizeOfBlockToBeSaved = sizeof((pZDescription + nIndex)->nZCount); FlushTMP.pBlockToBeSaved = (void *)&(pZDescription + nIndex)->nZCount; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } if (hMiraMonLayer->LayerVersion == MM_64BITS_VERSION) { FlushTMP.SizeOfBlockToBeSaved = 4; FlushTMP.pBlockToBeSaved = (void *)nullptr; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } } // Overflow? if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION && (pZDescription + nIndex)->nOffsetZ > MAXIMUM_OFFSET_IN_2GB_VECTORS - nOffsetDiff) { CPLError(CE_Failure, CPLE_OpenFailed, "Offset Overflow in V1.1"); return 1; } if (MMAppendIntegerDependingOnVersion( hMiraMonLayer, &FlushTMP, &nUL32, (pZDescription + nIndex)->nOffsetZ + nOffsetDiff)) { if (pBuffer) VSIFree(pBuffer); return 1; } } FlushTMP.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } pZSection->ZSectionOffset += FlushTMP.TotalSavedBytes; if (pBuffer) VSIFree(pBuffer); return 0; } static void MMDestroyZSectionDescription(struct MM_ZSection *pZSection) { if (pZSection->pZL) { VSIFree(pZSection->pZL); pZSection->pZL = nullptr; } if (pZSection->pZDescription) { VSIFree(pZSection->pZDescription); pZSection->pZDescription = nullptr; } } static int MMInitZSectionDescription(struct MM_ZSection *pZSection) { if (MMCheckSize_t(pZSection->nMaxZDescription, sizeof(*pZSection->pZDescription))) return 1; if (!pZSection->nMaxZDescription) { pZSection->pZDescription = nullptr; return 0; // No elements to read (or write) } pZSection->pZDescription = (struct MM_ZD *)VSICalloc( (size_t)pZSection->nMaxZDescription, sizeof(*pZSection->pZDescription)); if (!pZSection->pZDescription) return 1; return 0; } static int MMInitZSectionLayer(struct MiraMonVectLayerInfo *hMiraMonLayer, VSILFILE *pF3d, struct MM_ZSection *pZSection) { if (!hMiraMonLayer) return 1; // Zsection if (!hMiraMonLayer->TopHeader.bIs3d) { pZSection->pZDescription = nullptr; return 0; } if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { pZSection->ZHeader.dfBBminz = STATISTICAL_UNDEF_VALUE; pZSection->ZHeader.dfBBmaxz = -STATISTICAL_UNDEF_VALUE; } // ZH pZSection->ZHeader.nMyDiskSize = 32; pZSection->ZSectionOffset = 0; // ZD if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { pZSection->nMaxZDescription = MM_FIRST_NUMBER_OF_VERTICES * sizeof(double); if (MMInitZSectionDescription(pZSection)) return 1; } else { if (hMiraMonLayer->bIsPolygon) { if (MMCheckSize_t(hMiraMonLayer->MMPolygon.TopArcHeader.nElemCount, sizeof(double))) return 1; pZSection->nMaxZDescription = hMiraMonLayer->MMPolygon.TopArcHeader.nElemCount * sizeof(double); } else { if (MMCheckSize_t(hMiraMonLayer->TopHeader.nElemCount, sizeof(double))) return 1; pZSection->nMaxZDescription = hMiraMonLayer->TopHeader.nElemCount * sizeof(double); } if (MMInitZSectionDescription(pZSection)) return 1; } if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) pZSection->nZDDiskSize = MM_SIZE_OF_ZD_32_BITS; else pZSection->nZDDiskSize = MM_SIZE_OF_ZD_64_BITS; pZSection->ZDOffset = 0; // ZL if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { if (MMInitFlush(&pZSection->FlushZL, pF3d, MM_1MB, &pZSection->pZL, 0, sizeof(double))) return 1; } return 0; } /* -------------------------------------------------------------------- */ /* Layer Functions: Extensions */ /* -------------------------------------------------------------------- */ /* Find the last occurrence of pszFinalPart in pszName and changes it by pszNewPart. Examples of desired behavior AA.pnt -> AAT.rel AA.nod -> N.~idx AA.nod -> N.dbf AA.nod -> N.rel */ static int MMChangeFinalPartOfTheName(char *pszName, size_t nMaxSizeOfName, const char *pszFinalPart, const char *pszNewPart) { char *pAux, *pszWhereToFind, *pszLastFound = nullptr; ; if (!pszName || !pszFinalPart || !pszNewPart) return 0; if (MMIsEmptyString(pszName) || MMIsEmptyString(pszFinalPart) || MMIsEmptyString(pszNewPart)) return 0; if (strlen(pszName) - strlen(pszFinalPart) + strlen(pszNewPart) >= nMaxSizeOfName) return 1; // It's not possible to change the final part // It's the implementation on windows of the linux strrstr() // pszLastFound = strrstr(pszWhereToFind, pszFinalPart); pszWhereToFind = pszName; while (nullptr != (pAux = MM_stristr(pszWhereToFind, pszFinalPart))) { pszLastFound = pAux; pszWhereToFind = pAux + strlen(pAux); } if (!pszLastFound) return 1; // Not found not changed memcpy(pszLastFound, pszNewPart, strlen(pszNewPart)); return 0; } /* -------------------------------------------------------------------- */ /* Layer Functions: initializing MiraMon layers */ /* -------------------------------------------------------------------- */ static int MMInitPointLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { if (!hMiraMonLayer) return 1; hMiraMonLayer->bIsPoint = 1; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { // Geometrical part // Init header structure hMiraMonLayer->TopHeader.nElemCount = 0; MMInitBoundingBox(&hMiraMonLayer->TopHeader.hBB); hMiraMonLayer->TopHeader.bIs3d = 1; // Read description of bRealIs3d hMiraMonLayer->TopHeader.aFileType[0] = 'P'; hMiraMonLayer->TopHeader.aFileType[1] = 'N'; hMiraMonLayer->TopHeader.aFileType[2] = 'T'; // Opening the binary file where sections TH, TL[...] and ZH-ZD[...]-ZL[...] // are going to be written. snprintf(hMiraMonLayer->MMPoint.pszLayerName, sizeof(hMiraMonLayer->MMPoint.pszLayerName), "%s.pnt", hMiraMonLayer->pszSrcLayerName); } if (nullptr == (hMiraMonLayer->MMPoint.pF = VSIFOpenL(hMiraMonLayer->MMPoint.pszLayerName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error MMPoint.pF: Cannot open file %s.", hMiraMonLayer->MMPoint.pszLayerName); return 1; } VSIFSeekL(hMiraMonLayer->MMPoint.pF, 0, SEEK_SET); if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { // TL snprintf(hMiraMonLayer->MMPoint.pszTLName, sizeof(hMiraMonLayer->MMPoint.pszTLName), "%sT.~xy", hMiraMonLayer->pszSrcLayerName); if (nullptr == (hMiraMonLayer->MMPoint.pFTL = VSIFOpenL(hMiraMonLayer->MMPoint.pszTLName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error MMPoint.pFTL: Cannot open file %s.", hMiraMonLayer->MMPoint.pszTLName); return 1; } VSIFSeekL(hMiraMonLayer->MMPoint.pFTL, 0, SEEK_SET); if (MMInitFlush(&hMiraMonLayer->MMPoint.FlushTL, hMiraMonLayer->MMPoint.pFTL, MM_1MB, &hMiraMonLayer->MMPoint.pTL, 0, MM_SIZE_OF_TL)) return 1; // 3D part if (hMiraMonLayer->TopHeader.bIs3d) { snprintf(hMiraMonLayer->MMPoint.psz3DLayerName, sizeof(hMiraMonLayer->MMPoint.psz3DLayerName), "%sT.~z", hMiraMonLayer->pszSrcLayerName); if (nullptr == (hMiraMonLayer->MMPoint.pF3d = VSIFOpenL(hMiraMonLayer->MMPoint.psz3DLayerName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error MMPoint.pF3d: Cannot open file %s.", hMiraMonLayer->MMPoint.psz3DLayerName); return 1; } VSIFSeekL(hMiraMonLayer->MMPoint.pF3d, 0, SEEK_SET); } } // Zsection if (hMiraMonLayer->TopHeader.bIs3d) { if (MMInitZSectionLayer(hMiraMonLayer, hMiraMonLayer->MMPoint.pF3d, &hMiraMonLayer->MMPoint.pZSection)) return 1; if (hMiraMonLayer->ReadOrWrite == MM_READING_MODE) { if (MMReadZSection(hMiraMonLayer, hMiraMonLayer->MMPoint.pF, &hMiraMonLayer->MMPoint.pZSection)) return 1; if (MMReadZDescriptionHeaders(hMiraMonLayer, hMiraMonLayer->MMPoint.pF, hMiraMonLayer->TopHeader.nElemCount, &hMiraMonLayer->MMPoint.pZSection)) return 1; } } // MiraMon metadata if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(hMiraMonLayer->MMPoint.pszREL_LayerName, sizeof(hMiraMonLayer->MMPoint.pszREL_LayerName), "%sT.rel", hMiraMonLayer->pszSrcLayerName); } else { CPLStrlcpy(hMiraMonLayer->MMPoint.pszREL_LayerName, hMiraMonLayer->pszSrcLayerName, sizeof(hMiraMonLayer->MMPoint.pszREL_LayerName)); if (MMChangeFinalPartOfTheName(hMiraMonLayer->MMPoint.pszREL_LayerName, MM_CPL_PATH_BUF_SIZE, ".pnt", "T.rel")) return 1; } hMiraMonLayer->pszMainREL_LayerName = hMiraMonLayer->MMPoint.pszREL_LayerName; if (hMiraMonLayer->ReadOrWrite == MM_READING_MODE) { // This file has to exist and be the appropriate version. if (MMCheck_REL_FILE(hMiraMonLayer->MMPoint.pszREL_LayerName)) return 1; } // MIRAMON DATA BASE // Creating the DBF file name if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(hMiraMonLayer->MMPoint.MMAdmDB.pszExtDBFLayerName, sizeof(hMiraMonLayer->MMPoint.MMAdmDB.pszExtDBFLayerName), "%sT.dbf", hMiraMonLayer->pszSrcLayerName); } else { CPLStrlcpy(hMiraMonLayer->MMPoint.MMAdmDB.pszExtDBFLayerName, hMiraMonLayer->pszSrcLayerName, sizeof(hMiraMonLayer->MMPoint.MMAdmDB.pszExtDBFLayerName)); if (MMChangeFinalPartOfTheName( hMiraMonLayer->MMPoint.MMAdmDB.pszExtDBFLayerName, MM_CPL_PATH_BUF_SIZE, ".pnt", "T.dbf")) return 1; } if (hMiraMonLayer->ReadOrWrite == MM_READING_MODE) { if (MM_ReadExtendedDBFHeader(hMiraMonLayer)) return 1; } return 0; } static int MMInitNodeLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { struct MiraMonArcLayer *pMMArcLayer; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPolygon) pMMArcLayer = &hMiraMonLayer->MMPolygon.MMArc; else pMMArcLayer = &hMiraMonLayer->MMArc; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { // Init header structure pMMArcLayer->TopNodeHeader.aFileType[0] = 'N'; pMMArcLayer->TopNodeHeader.aFileType[1] = 'O'; pMMArcLayer->TopNodeHeader.aFileType[2] = 'D'; pMMArcLayer->TopNodeHeader.bIs3d = 1; // Read description of bRealIs3d MMInitBoundingBox(&pMMArcLayer->TopNodeHeader.hBB); } // Opening the binary file where sections TH, NH and NL[...] // are going to be written. strcpy(pMMArcLayer->MMNode.pszLayerName, pMMArcLayer->pszLayerName); CPLStrlcpy(pMMArcLayer->MMNode.pszLayerName, CPLResetExtension(pMMArcLayer->MMNode.pszLayerName, "nod"), sizeof(pMMArcLayer->MMNode.pszLayerName)); if (nullptr == (pMMArcLayer->MMNode.pF = VSIFOpenL(pMMArcLayer->MMNode.pszLayerName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error MMNode.pF: Cannot open file %s.", pMMArcLayer->MMNode.pszLayerName); return 1; } VSIFSeekL(pMMArcLayer->MMNode.pF, 0, SEEK_SET); if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { // Node Header pMMArcLayer->MMNode.nMaxNodeHeader = MM_FIRST_NUMBER_OF_NODES; if (MMCheckSize_t(pMMArcLayer->MMNode.nMaxNodeHeader, sizeof(*pMMArcLayer->MMNode.pNodeHeader))) return 1; if (!pMMArcLayer->MMNode.nMaxNodeHeader) { CPLError(CE_Failure, CPLE_OutOfMemory, "Error in MiraMon " "driver: no nodes to write?"); return 1; } if (nullptr == (pMMArcLayer->MMNode.pNodeHeader = (struct MM_NH *)VSICalloc( (size_t)pMMArcLayer->MMNode.nMaxNodeHeader, sizeof(*pMMArcLayer->MMNode.pNodeHeader)))) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMInitNodeLayer())"); return 1; } if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) pMMArcLayer->MMNode.nSizeNodeHeader = MM_SIZE_OF_NH_32BITS; else pMMArcLayer->MMNode.nSizeNodeHeader = MM_SIZE_OF_NH_64BITS; // NL Section strcpy(pMMArcLayer->MMNode.pszNLName, pMMArcLayer->MMNode.pszLayerName); if (MMChangeFinalPartOfTheName(pMMArcLayer->MMNode.pszNLName, MM_CPL_PATH_BUF_SIZE, ".nod", "N.~idx")) return 1; if (nullptr == (pMMArcLayer->MMNode.pFNL = VSIFOpenL(pMMArcLayer->MMNode.pszNLName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error MMNode.pFNL: Cannot open file %s.", pMMArcLayer->MMNode.pszNLName); return 1; } VSIFSeekL(pMMArcLayer->MMNode.pFNL, 0, SEEK_SET); if (MMInitFlush(&pMMArcLayer->MMNode.FlushNL, pMMArcLayer->MMNode.pFNL, MM_1MB, &pMMArcLayer->MMNode.pNL, 0, 0)) return 1; // Creating the DBF file name strcpy(pMMArcLayer->MMNode.MMAdmDB.pszExtDBFLayerName, pMMArcLayer->MMNode.pszLayerName); if (MMChangeFinalPartOfTheName( pMMArcLayer->MMNode.MMAdmDB.pszExtDBFLayerName, MM_CPL_PATH_BUF_SIZE, ".nod", "N.dbf")) return 1; // MiraMon metadata strcpy(pMMArcLayer->MMNode.pszREL_LayerName, pMMArcLayer->MMNode.pszLayerName); if (MMChangeFinalPartOfTheName(pMMArcLayer->MMNode.pszREL_LayerName, MM_CPL_PATH_BUF_SIZE, ".nod", "N.rel")) return 1; } return 0; } static int MMInitArcLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { struct MiraMonArcLayer *pMMArcLayer; struct MM_TH *pArcTopHeader; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPolygon) { pMMArcLayer = &hMiraMonLayer->MMPolygon.MMArc; pArcTopHeader = &hMiraMonLayer->MMPolygon.TopArcHeader; } else { pMMArcLayer = &hMiraMonLayer->MMArc; pArcTopHeader = &hMiraMonLayer->TopHeader; } // Init header structure hMiraMonLayer->bIsArc = 1; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { pArcTopHeader->bIs3d = 1; // Read description of bRealIs3d MMInitBoundingBox(&pArcTopHeader->hBB); pArcTopHeader->aFileType[0] = 'A'; pArcTopHeader->aFileType[1] = 'R'; pArcTopHeader->aFileType[2] = 'C'; if (hMiraMonLayer->bIsPolygon) { snprintf(pMMArcLayer->pszLayerName, sizeof(pMMArcLayer->pszLayerName), "%s_bound.arc", hMiraMonLayer->pszSrcLayerName); } else { snprintf(pMMArcLayer->pszLayerName, sizeof(pMMArcLayer->pszLayerName), "%s.arc", hMiraMonLayer->pszSrcLayerName); } } if (nullptr == (pMMArcLayer->pF = VSIFOpenL(pMMArcLayer->pszLayerName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error pMMArcLayer->pF: Cannot open file %s.", pMMArcLayer->pszLayerName); return 1; } if (hMiraMonLayer->ReadOrWrite == MM_READING_MODE && hMiraMonLayer->bIsPolygon) { VSIFSeekL(pMMArcLayer->pF, 0, SEEK_SET); if (MMReadHeader(pMMArcLayer->pF, &hMiraMonLayer->MMPolygon.TopArcHeader)) { CPLError(CE_Failure, CPLE_NotSupported, "Error reading the format in file %s.", pMMArcLayer->pszLayerName); return 1; } // 3D information is in arcs file hMiraMonLayer->TopHeader.bIs3d = hMiraMonLayer->MMPolygon.TopArcHeader.bIs3d; } // AH if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) pMMArcLayer->nSizeArcHeader = MM_SIZE_OF_AH_32BITS; else pMMArcLayer->nSizeArcHeader = MM_SIZE_OF_AH_64BITS; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) pMMArcLayer->nMaxArcHeader = MM_FIRST_NUMBER_OF_ARCS; else pMMArcLayer->nMaxArcHeader = pArcTopHeader->nElemCount; if (pMMArcLayer->nMaxArcHeader) { if (MMCheckSize_t(pMMArcLayer->nMaxArcHeader, sizeof(*pMMArcLayer->pArcHeader))) return 1; if (nullptr == (pMMArcLayer->pArcHeader = (struct MM_AH *)VSICalloc( (size_t)pMMArcLayer->nMaxArcHeader, sizeof(*pMMArcLayer->pArcHeader)))) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMInitArcLayer())"); return 1; } if (hMiraMonLayer->ReadOrWrite == MM_READING_MODE) { if (MMReadAHArcSection(hMiraMonLayer)) { CPLError(CE_Failure, CPLE_NotSupported, "Error reading the format in file %s.", pMMArcLayer->pszLayerName); return 1; } } } else pMMArcLayer->pArcHeader = nullptr; // AL if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { pMMArcLayer->nALElementSize = MM_SIZE_OF_AL; if (hMiraMonLayer->bIsPolygon) { snprintf(pMMArcLayer->pszALName, sizeof(pMMArcLayer->pszALName), "%s_boundA.~xy", hMiraMonLayer->pszSrcLayerName); } else { snprintf(pMMArcLayer->pszALName, sizeof(pMMArcLayer->pszALName), "%sA.~xy", hMiraMonLayer->pszSrcLayerName); } if (nullptr == (pMMArcLayer->pFAL = VSIFOpenL(pMMArcLayer->pszALName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error pMMArcLayer->pFAL: Cannot open file %s.", pMMArcLayer->pszALName); return 1; } VSIFSeekL(pMMArcLayer->pFAL, 0, SEEK_SET); if (MMInitFlush(&pMMArcLayer->FlushAL, pMMArcLayer->pFAL, MM_1MB, &pMMArcLayer->pAL, 0, 0)) return 1; } // 3D if (pArcTopHeader->bIs3d) { if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { if (hMiraMonLayer->bIsPolygon) { snprintf(pMMArcLayer->psz3DLayerName, sizeof(pMMArcLayer->psz3DLayerName), "%s_boundA.~z", hMiraMonLayer->pszSrcLayerName); } else { snprintf(pMMArcLayer->psz3DLayerName, sizeof(pMMArcLayer->psz3DLayerName), "%sA.~z", hMiraMonLayer->pszSrcLayerName); } if (nullptr == (pMMArcLayer->pF3d = VSIFOpenL(pMMArcLayer->psz3DLayerName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error pMMArcLayer->pF3d: Cannot open file %s.", pMMArcLayer->psz3DLayerName); return 1; } VSIFSeekL(pMMArcLayer->pF3d, 0, SEEK_SET); } if (MMInitZSectionLayer(hMiraMonLayer, pMMArcLayer->pF3d, &pMMArcLayer->pZSection)) { CPLError(CE_Failure, CPLE_NotSupported, "Error reading the format in file %s %d.", pMMArcLayer->pszLayerName, 6); return 1; } if (hMiraMonLayer->ReadOrWrite == MM_READING_MODE) { if (MMReadZSection(hMiraMonLayer, pMMArcLayer->pF, &pMMArcLayer->pZSection)) { CPLError(CE_Failure, CPLE_NotSupported, "Error reading the format in file %s.", pMMArcLayer->pszLayerName); return 1; } if (MMReadZDescriptionHeaders(hMiraMonLayer, pMMArcLayer->pF, pArcTopHeader->nElemCount, &pMMArcLayer->pZSection)) { CPLError(CE_Failure, CPLE_NotSupported, "Error reading the format in file %s.", pMMArcLayer->pszLayerName); return 1; } } } // MiraMon metadata if (hMiraMonLayer->bIsPolygon) { if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(pMMArcLayer->pszREL_LayerName, sizeof(pMMArcLayer->pszREL_LayerName), "%s_boundA.rel", hMiraMonLayer->pszSrcLayerName); } else { strcpy(pMMArcLayer->pszREL_LayerName, pMMArcLayer->pszLayerName); if (MMChangeFinalPartOfTheName(pMMArcLayer->pszREL_LayerName, MM_CPL_PATH_BUF_SIZE, ".arc", "A.rel")) return 1; } } else { if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(pMMArcLayer->pszREL_LayerName, sizeof(pMMArcLayer->pszREL_LayerName), "%sA.rel", hMiraMonLayer->pszSrcLayerName); } else { CPLStrlcpy(pMMArcLayer->pszREL_LayerName, hMiraMonLayer->pszSrcLayerName, sizeof(pMMArcLayer->pszREL_LayerName)); if (MMChangeFinalPartOfTheName(pMMArcLayer->pszREL_LayerName, MM_CPL_PATH_BUF_SIZE, ".arc", "A.rel")) return 1; } } if (hMiraMonLayer->ReadOrWrite == MM_READING_MODE) { // This file has to exist and be the appropriate version. if (MMCheck_REL_FILE(pMMArcLayer->pszREL_LayerName)) return 1; } if (!hMiraMonLayer->bIsPolygon) hMiraMonLayer->pszMainREL_LayerName = pMMArcLayer->pszREL_LayerName; // MIRAMON DATA BASE // Creating the DBF file name if (hMiraMonLayer->bIsPolygon) { if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(pMMArcLayer->MMAdmDB.pszExtDBFLayerName, sizeof(pMMArcLayer->MMAdmDB.pszExtDBFLayerName), "%s_boundA.dbf", hMiraMonLayer->pszSrcLayerName); } else { strcpy(pMMArcLayer->MMAdmDB.pszExtDBFLayerName, pMMArcLayer->pszLayerName); if (MMChangeFinalPartOfTheName( pMMArcLayer->MMAdmDB.pszExtDBFLayerName, MM_CPL_PATH_BUF_SIZE, ".arc", "A.dbf")) return 1; } } else { if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(pMMArcLayer->MMAdmDB.pszExtDBFLayerName, sizeof(pMMArcLayer->MMAdmDB.pszExtDBFLayerName), "%sA.dbf", hMiraMonLayer->pszSrcLayerName); } else { CPLStrlcpy(pMMArcLayer->MMAdmDB.pszExtDBFLayerName, hMiraMonLayer->pszSrcLayerName, sizeof(pMMArcLayer->MMAdmDB.pszExtDBFLayerName)); if (MMChangeFinalPartOfTheName( pMMArcLayer->MMAdmDB.pszExtDBFLayerName, MM_CPL_PATH_BUF_SIZE, ".arc", "A.dbf")) return 1; } } if (hMiraMonLayer->ReadOrWrite == MM_READING_MODE) { if (MM_ReadExtendedDBFHeader(hMiraMonLayer)) return 1; } // Node part if (MMInitNodeLayer(hMiraMonLayer)) return 1; if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) MMSet1_1Version(&pMMArcLayer->TopNodeHeader); else MMSet2_0Version(&pMMArcLayer->TopNodeHeader); return 0; } static int MMInitPolygonLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { struct MiraMonPolygonLayer *pMMPolygonLayer; if (!hMiraMonLayer) return 1; pMMPolygonLayer = &hMiraMonLayer->MMPolygon; // Init header structure hMiraMonLayer->bIsPolygon = 1; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { hMiraMonLayer->TopHeader.bIs3d = 1; // Read description of bRealIs3d MMInitBoundingBox(&hMiraMonLayer->TopHeader.hBB); hMiraMonLayer->TopHeader.aFileType[0] = 'P'; hMiraMonLayer->TopHeader.aFileType[1] = 'O'; hMiraMonLayer->TopHeader.aFileType[2] = 'L'; snprintf(pMMPolygonLayer->pszLayerName, sizeof(pMMPolygonLayer->pszLayerName), "%s.pol", hMiraMonLayer->pszSrcLayerName); } if (nullptr == (pMMPolygonLayer->pF = VSIFOpenL(pMMPolygonLayer->pszLayerName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error pMMPolygonLayer->pF: Cannot open file %s.", pMMPolygonLayer->pszLayerName); return 1; } // PS if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) pMMPolygonLayer->nPSElementSize = MM_SIZE_OF_PS_32BITS; else pMMPolygonLayer->nPSElementSize = MM_SIZE_OF_PS_64BITS; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(pMMPolygonLayer->pszPSName, sizeof(pMMPolygonLayer->pszPSName), "%sP.~PS", hMiraMonLayer->pszSrcLayerName); if (nullptr == (pMMPolygonLayer->pFPS = VSIFOpenL(pMMPolygonLayer->pszPSName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error pMMPolygonLayer->pFPS: Cannot open file %s.", pMMPolygonLayer->pszPSName); return 1; } VSIFSeekL(pMMPolygonLayer->pFPS, 0, SEEK_SET); if (MMInitFlush(&pMMPolygonLayer->FlushPS, pMMPolygonLayer->pFPS, MM_1MB, &pMMPolygonLayer->pPS, 0, pMMPolygonLayer->nPSElementSize)) return 1; } // PH if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) pMMPolygonLayer->nPHElementSize = MM_SIZE_OF_PH_32BITS; else pMMPolygonLayer->nPHElementSize = MM_SIZE_OF_PH_64BITS; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) pMMPolygonLayer->nMaxPolHeader = MM_FIRST_NUMBER_OF_POLYGONS + 1; else pMMPolygonLayer->nMaxPolHeader = hMiraMonLayer->TopHeader.nElemCount; if (pMMPolygonLayer->nMaxPolHeader) { if (MMCheckSize_t(pMMPolygonLayer->nMaxPolHeader, sizeof(*pMMPolygonLayer->pPolHeader))) return 1; if (nullptr == (pMMPolygonLayer->pPolHeader = (struct MM_PH *)VSICalloc( (size_t)pMMPolygonLayer->nMaxPolHeader, sizeof(*pMMPolygonLayer->pPolHeader)))) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMInitPolygonLayer())"); return 1; } } else pMMPolygonLayer->pPolHeader = nullptr; // PAL if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) pMMPolygonLayer->nPALElementSize = MM_SIZE_OF_PAL_32BITS; else pMMPolygonLayer->nPALElementSize = MM_SIZE_OF_PAL_64BITS; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { // Universal polygon. memset(pMMPolygonLayer->pPolHeader, 0, sizeof(*pMMPolygonLayer->pPolHeader)); hMiraMonLayer->TopHeader.nElemCount = 1; // PAL snprintf(pMMPolygonLayer->pszPALName, sizeof(pMMPolygonLayer->pszPALName), "%sP.~idx", hMiraMonLayer->pszSrcLayerName); if (nullptr == (pMMPolygonLayer->pFPAL = VSIFOpenL(pMMPolygonLayer->pszPALName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error pMMPolygonLayer->pFPAL: Cannot open file %s.", pMMPolygonLayer->pszPALName); return 1; } VSIFSeekL(pMMPolygonLayer->pFPAL, 0, SEEK_SET); if (MMInitFlush(&pMMPolygonLayer->FlushPAL, pMMPolygonLayer->pFPAL, MM_1MB, &pMMPolygonLayer->pPAL, 0, 0)) return 1; } // MiraMon metadata if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(hMiraMonLayer->MMPolygon.pszREL_LayerName, sizeof(hMiraMonLayer->MMPolygon.pszREL_LayerName), "%sP.rel", hMiraMonLayer->pszSrcLayerName); } else { CPLStrlcpy(hMiraMonLayer->MMPolygon.pszREL_LayerName, hMiraMonLayer->pszSrcLayerName, sizeof(hMiraMonLayer->MMPolygon.pszREL_LayerName)); if (MMChangeFinalPartOfTheName( hMiraMonLayer->MMPolygon.pszREL_LayerName, MM_CPL_PATH_BUF_SIZE, ".pol", "P.rel")) return 1; } if (hMiraMonLayer->ReadOrWrite == MM_READING_MODE) { // This file has to exist and be the appropriate version. if (MMCheck_REL_FILE(hMiraMonLayer->MMPolygon.pszREL_LayerName)) return 1; } hMiraMonLayer->pszMainREL_LayerName = hMiraMonLayer->MMPolygon.pszREL_LayerName; // MIRAMON DATA BASE if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(pMMPolygonLayer->MMAdmDB.pszExtDBFLayerName, sizeof(pMMPolygonLayer->MMAdmDB.pszExtDBFLayerName), "%sP.dbf", hMiraMonLayer->pszSrcLayerName); } else { CPLStrlcpy(pMMPolygonLayer->MMAdmDB.pszExtDBFLayerName, hMiraMonLayer->pszSrcLayerName, sizeof(pMMPolygonLayer->MMAdmDB.pszExtDBFLayerName)); if (MMChangeFinalPartOfTheName( pMMPolygonLayer->MMAdmDB.pszExtDBFLayerName, MM_CPL_PATH_BUF_SIZE, ".pol", "P.dbf")) return 1; } if (hMiraMonLayer->ReadOrWrite == MM_READING_MODE) { if (MM_ReadExtendedDBFHeader(hMiraMonLayer)) return 1; } return 0; } // The map file must be written in ANSI encoding; therefore, some // conversions are performed for strings that may originally // be in UTF-8. int MMInitLayerByType(struct MiraMonVectLayerInfo *hMiraMonLayer) { char *pszSrcLayerNameCP1252; if (!hMiraMonLayer) return 1; pszSrcLayerNameCP1252 = CPLRecode( CPLGetBasename(hMiraMonLayer->pszSrcLayerName), CPL_ENC_UTF8, "CP1252"); if (hMiraMonLayer->eLT == MM_LayerType_Point || hMiraMonLayer->eLT == MM_LayerType_Point3d) { if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(hMiraMonLayer->MMPoint.pszLayerName, sizeof(hMiraMonLayer->MMPoint.pszLayerName), "%s.pnt", hMiraMonLayer->pszSrcLayerName); } else { CPLStrlcpy(hMiraMonLayer->MMPoint.pszLayerName, hMiraMonLayer->pszSrcLayerName, sizeof(hMiraMonLayer->MMPoint.pszLayerName)); } if (hMiraMonLayer->MMMap && hMiraMonLayer->MMMap->fMMMap) { hMiraMonLayer->MMMap->nNumberOfLayers++; VSIFPrintfL(hMiraMonLayer->MMMap->fMMMap, "[VECTOR_%d]\n", hMiraMonLayer->MMMap->nNumberOfLayers); VSIFPrintfL(hMiraMonLayer->MMMap->fMMMap, "Fitxer=%s.pnt\n", pszSrcLayerNameCP1252 ? pszSrcLayerNameCP1252 : CPLGetBasename(hMiraMonLayer->pszSrcLayerName)); } if (MMInitPointLayer(hMiraMonLayer)) { // Error specified inside the function CPLFree(pszSrcLayerNameCP1252); return 1; } CPLFree(pszSrcLayerNameCP1252); return 0; } if (hMiraMonLayer->eLT == MM_LayerType_Arc || hMiraMonLayer->eLT == MM_LayerType_Arc3d) { struct MiraMonArcLayer *pMMArcLayer = &hMiraMonLayer->MMArc; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(pMMArcLayer->pszLayerName, sizeof(pMMArcLayer->pszLayerName), "%s.arc", hMiraMonLayer->pszSrcLayerName); } else { CPLStrlcpy(pMMArcLayer->pszLayerName, hMiraMonLayer->pszSrcLayerName, sizeof(pMMArcLayer->pszLayerName)); } if (hMiraMonLayer->MMMap && hMiraMonLayer->MMMap->fMMMap) { hMiraMonLayer->MMMap->nNumberOfLayers++; VSIFPrintfL(hMiraMonLayer->MMMap->fMMMap, "[VECTOR_%d]\n", hMiraMonLayer->MMMap->nNumberOfLayers); VSIFPrintfL(hMiraMonLayer->MMMap->fMMMap, "Fitxer=%s.arc\n", pszSrcLayerNameCP1252 ? pszSrcLayerNameCP1252 : CPLGetBasename(hMiraMonLayer->pszSrcLayerName)); } if (MMInitArcLayer(hMiraMonLayer)) { // Error specified inside the function CPLFree(pszSrcLayerNameCP1252); return 1; } CPLFree(pszSrcLayerNameCP1252); return 0; } if (hMiraMonLayer->eLT == MM_LayerType_Pol || hMiraMonLayer->eLT == MM_LayerType_Pol3d) { struct MiraMonPolygonLayer *pMMPolygonLayer = &hMiraMonLayer->MMPolygon; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { snprintf(pMMPolygonLayer->pszLayerName, sizeof(pMMPolygonLayer->pszLayerName), "%s.pol", hMiraMonLayer->pszSrcLayerName); } else { CPLStrlcpy(pMMPolygonLayer->pszLayerName, hMiraMonLayer->pszSrcLayerName, sizeof(pMMPolygonLayer->pszLayerName)); } if (hMiraMonLayer->MMMap && hMiraMonLayer->MMMap->fMMMap) { hMiraMonLayer->MMMap->nNumberOfLayers++; VSIFPrintfL(hMiraMonLayer->MMMap->fMMMap, "[VECTOR_%d]\n", hMiraMonLayer->MMMap->nNumberOfLayers); VSIFPrintfL(hMiraMonLayer->MMMap->fMMMap, "Fitxer=%s.pol\n", pszSrcLayerNameCP1252 ? pszSrcLayerNameCP1252 : CPLGetBasename(hMiraMonLayer->pszSrcLayerName)); } if (MMInitPolygonLayer(hMiraMonLayer)) { // Error specified inside the function CPLFree(pszSrcLayerNameCP1252); return 1; } if (hMiraMonLayer->ReadOrWrite == MM_READING_MODE) { char *pszArcLayerName; const char *pszExt; // StringLine associated to the polygon pszArcLayerName = MMReturnValueFromSectionINIFile( pMMPolygonLayer->pszREL_LayerName, SECTION_OVVW_ASPECTES_TECNICS, KEY_ArcSource); if (pszArcLayerName) { MM_RemoveInitial_and_FinalQuotationMarks(pszArcLayerName); // If extension is not specified ".arc" will be used pszExt = CPLGetExtension(pszArcLayerName); if (MMIsEmptyString(pszExt)) { char *pszArcLayerNameAux = VSICalloc(1, strlen(pszArcLayerName) + 5); if (!pszArcLayerNameAux) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMInitLayerByType())"); VSIFree(pszArcLayerName); CPLFree(pszSrcLayerNameCP1252); return 1; } snprintf(pszArcLayerNameAux, strlen(pszArcLayerName) + 5, "%s.arc", pszArcLayerName); VSIFree(pszArcLayerName); pszArcLayerName = pszArcLayerNameAux; } CPLStrlcpy( pMMPolygonLayer->MMArc.pszLayerName, CPLFormFilename(CPLGetPath(hMiraMonLayer->pszSrcLayerName), pszArcLayerName, ""), sizeof(pMMPolygonLayer->MMArc.pszLayerName)); VSIFree(pszArcLayerName); } else { // There is no arc layer on the metada file CPLError(CE_Failure, CPLE_OpenFailed, "Error reading the ARC file in the metadata file %s.", pMMPolygonLayer->pszREL_LayerName); CPLFree(pszSrcLayerNameCP1252); return 1; } if (nullptr == (hMiraMonLayer->MMPolygon.MMArc.pF = VSIFOpenL(pMMPolygonLayer->MMArc.pszLayerName, hMiraMonLayer->pszFlags))) { CPLError(CE_Failure, CPLE_OpenFailed, "Error pMMPolygonLayer.MMArc.pF: Cannot open file %s.", pMMPolygonLayer->MMArc.pszLayerName); CPLFree(pszSrcLayerNameCP1252); return 1; } if (MMReadHeader(hMiraMonLayer->MMPolygon.MMArc.pF, &hMiraMonLayer->MMPolygon.TopArcHeader)) { CPLError(CE_Failure, CPLE_NotSupported, "Error reading the format in file %s.", pMMPolygonLayer->MMArc.pszLayerName); CPLFree(pszSrcLayerNameCP1252); return 1; } if (MMReadPHPolygonSection(hMiraMonLayer)) { CPLError(CE_Failure, CPLE_NotSupported, "Error reading the format in file %s.", pMMPolygonLayer->MMArc.pszLayerName); CPLFree(pszSrcLayerNameCP1252); return 1; } fclose_and_nullify(&hMiraMonLayer->MMPolygon.MMArc.pF); } else { // Creating the stringLine file associated to the polygon snprintf(pMMPolygonLayer->MMArc.pszLayerName, sizeof(pMMPolygonLayer->MMArc.pszLayerName), "%s.arc", hMiraMonLayer->pszSrcLayerName); } if (MMInitArcLayer(hMiraMonLayer)) { // Error specified inside the function CPLFree(pszSrcLayerNameCP1252); return 1; } // Polygon is 3D if Arc is 3D, by definition. hMiraMonLayer->TopHeader.bIs3d = hMiraMonLayer->MMPolygon.TopArcHeader.bIs3d; if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) MMSet1_1Version(&pMMPolygonLayer->TopArcHeader); else MMSet2_0Version(&pMMPolygonLayer->TopArcHeader); } else if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { // Trying to get DBF information snprintf(hMiraMonLayer->MMAdmDBWriting.pszExtDBFLayerName, sizeof(hMiraMonLayer->MMAdmDBWriting.pszExtDBFLayerName), "%s.dbf", hMiraMonLayer->pszSrcLayerName); } CPLFree(pszSrcLayerNameCP1252); return 0; } int MMInitLayer(struct MiraMonVectLayerInfo *hMiraMonLayer, const char *pzFileName, int LayerVersion, char nMMRecode, char nMMLanguage, struct MiraMonDataBase *pLayerDB, MM_BOOLEAN ReadOrWrite, struct MiraMonVectMapInfo *MMMap) { if (!hMiraMonLayer) return 1; // Some variables must be initialized MM_FillFieldDescriptorByLanguage(); memset(hMiraMonLayer, 0, sizeof(*hMiraMonLayer)); //hMiraMonLayer->Version = MM_VECTOR_LAYER_LAST_VERSION; hMiraMonLayer->ReadOrWrite = ReadOrWrite; hMiraMonLayer->MMMap = MMMap; // Don't free in destructor hMiraMonLayer->pLayerDB = pLayerDB; // Opening mode strcpy(hMiraMonLayer->pszFlags, "wb+"); if (LayerVersion == MM_UNKNOWN_VERSION) { CPLError(CE_Failure, CPLE_NotSupported, "Unknown version in MiraMon driver."); return 1; } if (LayerVersion == MM_LAST_VERSION) { MMSet1_1Version(&hMiraMonLayer->TopHeader); hMiraMonLayer->nHeaderDiskSize = MM_HEADER_SIZE_64_BITS; hMiraMonLayer->LayerVersion = MM_64BITS_VERSION; } else if (LayerVersion == MM_32BITS_VERSION) { MMSet1_1Version(&hMiraMonLayer->TopHeader); hMiraMonLayer->nHeaderDiskSize = MM_HEADER_SIZE_32_BITS; hMiraMonLayer->LayerVersion = MM_32BITS_VERSION; } else { MMSet2_0Version(&hMiraMonLayer->TopHeader); hMiraMonLayer->nHeaderDiskSize = MM_HEADER_SIZE_64_BITS; hMiraMonLayer->LayerVersion = MM_64BITS_VERSION; } hMiraMonLayer->pszSrcLayerName = CPLStrdup(pzFileName); hMiraMonLayer->szLayerTitle = CPLStrdup(CPLGetFilename(pzFileName)); if (!hMiraMonLayer->bIsBeenInit && hMiraMonLayer->eLT != MM_LayerType_Unknown) { if (MMInitLayerByType(hMiraMonLayer)) { // Error specified inside the function return 1; } hMiraMonLayer->bIsBeenInit = 1; } // If more nNumStringToOperate is needed, it'll be increased. hMiraMonLayer->nNumStringToOperate = 0; if (MMResizeStringToOperateIfNeeded(hMiraMonLayer, 500)) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMInitLayer())"); return 1; } hMiraMonLayer->nMMLanguage = nMMLanguage; if (nMMRecode == MM_RECODE_UTF8) hMiraMonLayer->nCharSet = MM_JOC_CARAC_UTF8_DBF; else //if(nMMRecode==MM_RECODE_ANSI) hMiraMonLayer->nCharSet = MM_JOC_CARAC_ANSI_DBASE; return 0; } /* -------------------------------------------------------------------- */ /* Layer Functions: Closing MiraMon layers */ /* -------------------------------------------------------------------- */ static int MMClose3DSectionLayer(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_INTERNAL_FID nElements, VSILFILE *pF, VSILFILE *pF3d, const char *pszF3d, struct MM_ZSection *pZSection, MM_FILE_OFFSET FinalOffset) { int ret_code = 1; if (!hMiraMonLayer) return 1; // Avoid closing when it has no sense. But it's not an error. // Just return elegantly. if (!pF || !pF3d || !pszF3d || !pZSection) return 0; if (hMiraMonLayer->bIsReal3d) { pZSection->ZSectionOffset = FinalOffset; if (MMWriteZSection(pF, pZSection)) goto end_label; // Header 3D. Writes it after header if (MMWriteZDescriptionHeaders(hMiraMonLayer, pF, nElements, pZSection)) goto end_label; // ZL section pZSection->FlushZL.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&pZSection->FlushZL)) goto end_label; if (MMMoveFromFileToFile(pF3d, pF, &pZSection->ZSectionOffset)) goto end_label; } ret_code = 0; end_label: fclose_and_nullify(&pF3d); if (pszF3d && *pszF3d != '\0') VSIUnlink(pszF3d); return ret_code; } static int MMClosePointLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { int ret_code = 1; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { hMiraMonLayer->nFinalElemCount = hMiraMonLayer->TopHeader.nElemCount; hMiraMonLayer->TopHeader.bIs3d = hMiraMonLayer->bIsReal3d; if (MMWriteHeader(hMiraMonLayer->MMPoint.pF, &hMiraMonLayer->TopHeader)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", hMiraMonLayer->MMPoint.pszLayerName); goto end_label; } hMiraMonLayer->OffsetCheck = hMiraMonLayer->nHeaderDiskSize; // TL Section hMiraMonLayer->MMPoint.FlushTL.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&hMiraMonLayer->MMPoint.FlushTL)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", hMiraMonLayer->MMPoint.pszLayerName); goto end_label; } if (MMMoveFromFileToFile(hMiraMonLayer->MMPoint.pFTL, hMiraMonLayer->MMPoint.pF, &hMiraMonLayer->OffsetCheck)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", hMiraMonLayer->MMPoint.pszLayerName); goto end_label; } fclose_and_nullify(&hMiraMonLayer->MMPoint.pFTL); if (*hMiraMonLayer->MMPoint.pszTLName != '\0') VSIUnlink(hMiraMonLayer->MMPoint.pszTLName); if (MMClose3DSectionLayer( hMiraMonLayer, hMiraMonLayer->TopHeader.nElemCount, hMiraMonLayer->MMPoint.pF, hMiraMonLayer->MMPoint.pF3d, hMiraMonLayer->MMPoint.psz3DLayerName, &hMiraMonLayer->MMPoint.pZSection, hMiraMonLayer->OffsetCheck)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", hMiraMonLayer->MMPoint.pszLayerName); goto end_label; } } ret_code = 0; end_label: fclose_and_nullify(&hMiraMonLayer->MMPoint.pF); return ret_code; } static int MMCloseNodeLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { int ret_code = 1; struct MiraMonArcLayer *pMMArcLayer; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPolygon) pMMArcLayer = &hMiraMonLayer->MMPolygon.MMArc; else pMMArcLayer = &hMiraMonLayer->MMArc; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { hMiraMonLayer->TopHeader.bIs3d = hMiraMonLayer->bIsReal3d; if (MMWriteHeader(pMMArcLayer->MMNode.pF, &pMMArcLayer->TopNodeHeader)) goto end_label; hMiraMonLayer->OffsetCheck = hMiraMonLayer->nHeaderDiskSize; // NH Section if (MMWriteNHNodeSection(hMiraMonLayer, hMiraMonLayer->nHeaderDiskSize)) goto end_label; // NL Section pMMArcLayer->MMNode.FlushNL.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&pMMArcLayer->MMNode.FlushNL)) goto end_label; if (MMMoveFromFileToFile(pMMArcLayer->MMNode.pFNL, pMMArcLayer->MMNode.pF, &hMiraMonLayer->OffsetCheck)) goto end_label; fclose_and_nullify(&pMMArcLayer->MMNode.pFNL); if (*pMMArcLayer->MMNode.pszNLName != '\0') VSIUnlink(pMMArcLayer->MMNode.pszNLName); } ret_code = 0; end_label: fclose_and_nullify(&pMMArcLayer->MMNode.pFNL); fclose_and_nullify(&pMMArcLayer->MMNode.pF); return ret_code; } static int MMCloseArcLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { int ret_code = 0; struct MiraMonArcLayer *pMMArcLayer; struct MM_TH *pArcTopHeader; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPolygon) { pMMArcLayer = &hMiraMonLayer->MMPolygon.MMArc; pArcTopHeader = &hMiraMonLayer->MMPolygon.TopArcHeader; } else { pMMArcLayer = &hMiraMonLayer->MMArc; pArcTopHeader = &hMiraMonLayer->TopHeader; } if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { hMiraMonLayer->nFinalElemCount = pArcTopHeader->nElemCount; pArcTopHeader->bIs3d = hMiraMonLayer->bIsReal3d; if (MMWriteHeader(pMMArcLayer->pF, pArcTopHeader)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", pMMArcLayer->pszLayerName); goto end_label; } hMiraMonLayer->OffsetCheck = hMiraMonLayer->nHeaderDiskSize; // AH Section if (MMWriteAHArcSection(hMiraMonLayer, hMiraMonLayer->OffsetCheck)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", pMMArcLayer->pszLayerName); goto end_label; } // AL Section pMMArcLayer->FlushAL.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&pMMArcLayer->FlushAL)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", pMMArcLayer->pszLayerName); goto end_label; } if (MMMoveFromFileToFile(pMMArcLayer->pFAL, pMMArcLayer->pF, &hMiraMonLayer->OffsetCheck)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", pMMArcLayer->pszLayerName); goto end_label; } fclose_and_nullify(&pMMArcLayer->pFAL); if (*pMMArcLayer->pszALName != '\0') VSIUnlink(pMMArcLayer->pszALName); // 3D Section if (MMClose3DSectionLayer( hMiraMonLayer, pArcTopHeader->nElemCount, pMMArcLayer->pF, pMMArcLayer->pF3d, pMMArcLayer->psz3DLayerName, &pMMArcLayer->pZSection, hMiraMonLayer->OffsetCheck)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", pMMArcLayer->pszLayerName); goto end_label; } } ret_code = 0; end_label: fclose_and_nullify(&pMMArcLayer->pF); fclose_and_nullify(&pMMArcLayer->pFAL); if (MMCloseNodeLayer(hMiraMonLayer)) ret_code = 1; return ret_code; } static int MMClosePolygonLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { int ret_code = 0; struct MiraMonPolygonLayer *pMMPolygonLayer; if (!hMiraMonLayer) return 1; pMMPolygonLayer = &hMiraMonLayer->MMPolygon; MMCloseArcLayer(hMiraMonLayer); if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { hMiraMonLayer->nFinalElemCount = hMiraMonLayer->TopHeader.nElemCount; hMiraMonLayer->TopHeader.bIs3d = hMiraMonLayer->bIsReal3d; if (MMWriteHeader(pMMPolygonLayer->pF, &hMiraMonLayer->TopHeader)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", pMMPolygonLayer->pszLayerName); goto end_label; } hMiraMonLayer->OffsetCheck = hMiraMonLayer->nHeaderDiskSize; // PS Section pMMPolygonLayer->FlushPS.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&pMMPolygonLayer->FlushPS)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", pMMPolygonLayer->pszLayerName); goto end_label; } if (MMMoveFromFileToFile(pMMPolygonLayer->pFPS, pMMPolygonLayer->pF, &hMiraMonLayer->OffsetCheck)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", pMMPolygonLayer->pszLayerName); goto end_label; } fclose_and_nullify(&pMMPolygonLayer->pFPS); if (*pMMPolygonLayer->pszPSName != '\0') VSIUnlink(pMMPolygonLayer->pszPSName); // AH Section if (MMWritePHPolygonSection(hMiraMonLayer, hMiraMonLayer->OffsetCheck)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", pMMPolygonLayer->pszLayerName); goto end_label; } // PAL Section pMMPolygonLayer->FlushPAL.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&pMMPolygonLayer->FlushPAL)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", pMMPolygonLayer->pszLayerName); goto end_label; } if (MMMoveFromFileToFile(pMMPolygonLayer->pFPAL, pMMPolygonLayer->pF, &hMiraMonLayer->OffsetCheck)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Error writing to file %s", pMMPolygonLayer->pszLayerName); goto end_label; } fclose_and_nullify(&pMMPolygonLayer->pFPAL); if (*pMMPolygonLayer->pszPALName != '\0') VSIUnlink(pMMPolygonLayer->pszPALName); } ret_code = 0; end_label: fclose_and_nullify(&pMMPolygonLayer->pF); fclose_and_nullify(&pMMPolygonLayer->pFPAL); return ret_code; } int MMCloseLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { int ret_code = 0; //CheckMMVectorLayerVersion(hMiraMonLayer, 1) if (!hMiraMonLayer) return 0; if (hMiraMonLayer->bIsPoint) { ret_code = MMClosePointLayer(hMiraMonLayer); } else if (hMiraMonLayer->bIsArc && !hMiraMonLayer->bIsPolygon) { ret_code = MMCloseArcLayer(hMiraMonLayer); } else if (hMiraMonLayer->bIsPolygon) { ret_code = MMClosePolygonLayer(hMiraMonLayer); } else if (hMiraMonLayer->bIsDBF) { // If no geometry, remove all created files if (hMiraMonLayer->pszSrcLayerName) VSIUnlink(hMiraMonLayer->pszSrcLayerName); if (hMiraMonLayer->szLayerTitle) VSIUnlink(hMiraMonLayer->szLayerTitle); } // MiraMon metadata files if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { if (MMWriteVectorMetadata(hMiraMonLayer)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Some error writing in metadata file of the layer"); ret_code = 1; } } // MiraMon database files if (MMCloseMMBD_XP(hMiraMonLayer)) { CPLError(CE_Failure, CPLE_NoWriteAccess, "Some error writing in DBF file of the layer"); ret_code = 1; } return ret_code; } /* -------------------------------------------------------------------- */ /* Layer Functions: Destroying (allocated memory) */ /* -------------------------------------------------------------------- */ static void MMDestroyMMAdmDB(struct MMAdmDatabase *pMMAdmDB) { if (pMMAdmDB->pRecList) { VSIFree(pMMAdmDB->pRecList); pMMAdmDB->pRecList = nullptr; } if (pMMAdmDB->szRecordOnCourse) { VSIFree(pMMAdmDB->szRecordOnCourse); pMMAdmDB->szRecordOnCourse = nullptr; pMMAdmDB->nNumRecordOnCourse = 0; } } static int MMDestroyPointLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { if (!hMiraMonLayer) return 1; if (hMiraMonLayer->MMPoint.pTL) { VSIFree(hMiraMonLayer->MMPoint.pTL); hMiraMonLayer->MMPoint.pTL = nullptr; } MMDestroyZSectionDescription(&hMiraMonLayer->MMPoint.pZSection); MMDestroyMMAdmDB(&hMiraMonLayer->MMPoint.MMAdmDB); return 0; } static int MMDestroyNodeLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { struct MiraMonArcLayer *pMMArcLayer; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPolygon) pMMArcLayer = &hMiraMonLayer->MMPolygon.MMArc; else pMMArcLayer = &hMiraMonLayer->MMArc; if (pMMArcLayer->MMNode.pNL) { VSIFree(pMMArcLayer->MMNode.pNL); pMMArcLayer->MMNode.pNL = nullptr; } if (pMMArcLayer->MMNode.pNodeHeader) { VSIFree(pMMArcLayer->MMNode.pNodeHeader); pMMArcLayer->MMNode.pNodeHeader = nullptr; } MMDestroyMMAdmDB(&hMiraMonLayer->MMArc.MMNode.MMAdmDB); return 0; } static int MMDestroyArcLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { struct MiraMonArcLayer *pMMArcLayer; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPolygon) pMMArcLayer = &hMiraMonLayer->MMPolygon.MMArc; else pMMArcLayer = &hMiraMonLayer->MMArc; if (pMMArcLayer->pAL) { VSIFree(pMMArcLayer->pAL); pMMArcLayer->pAL = nullptr; } if (pMMArcLayer->pArcHeader) { VSIFree(pMMArcLayer->pArcHeader); pMMArcLayer->pArcHeader = nullptr; } MMDestroyZSectionDescription(&pMMArcLayer->pZSection); MMDestroyMMAdmDB(&pMMArcLayer->MMAdmDB); MMDestroyNodeLayer(hMiraMonLayer); return 0; } static int MMDestroyPolygonLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { struct MiraMonPolygonLayer *pMMPolygonLayer; if (!hMiraMonLayer) return 1; pMMPolygonLayer = &hMiraMonLayer->MMPolygon; MMDestroyArcLayer(hMiraMonLayer); if (pMMPolygonLayer->pPAL) { VSIFree(pMMPolygonLayer->pPAL); pMMPolygonLayer->pPAL = nullptr; } if (pMMPolygonLayer->pPS) { VSIFree(pMMPolygonLayer->pPS); pMMPolygonLayer->pPS = nullptr; } if (pMMPolygonLayer->pPolHeader) { VSIFree(pMMPolygonLayer->pPolHeader); pMMPolygonLayer->pPolHeader = nullptr; } MMDestroyMMAdmDB(&pMMPolygonLayer->MMAdmDB); return 0; } int MMDestroyLayer(struct MiraMonVectLayerInfo *hMiraMonLayer) { //CheckMMVectorLayerVersion(hMiraMonLayer, 1) if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPoint) MMDestroyPointLayer(hMiraMonLayer); else if (hMiraMonLayer->bIsArc && !hMiraMonLayer->bIsPolygon) MMDestroyArcLayer(hMiraMonLayer); else if (hMiraMonLayer->bIsPolygon) MMDestroyPolygonLayer(hMiraMonLayer); if (hMiraMonLayer->pszSrcLayerName) { VSIFree(hMiraMonLayer->pszSrcLayerName); hMiraMonLayer->pszSrcLayerName = nullptr; } if (hMiraMonLayer->szLayerTitle) { VSIFree(hMiraMonLayer->szLayerTitle); hMiraMonLayer->szLayerTitle = nullptr; } if (hMiraMonLayer->pSRS) { VSIFree(hMiraMonLayer->pSRS); hMiraMonLayer->pSRS = nullptr; } if (hMiraMonLayer->pZUnit) { VSIFree(hMiraMonLayer->pZUnit); hMiraMonLayer->pZUnit = nullptr; } if (hMiraMonLayer->pMultRecordIndex) { VSIFree(hMiraMonLayer->pMultRecordIndex); hMiraMonLayer->pMultRecordIndex = nullptr; } if (hMiraMonLayer->ReadFeature.pNCoordRing) { free(hMiraMonLayer->ReadFeature.pNCoordRing); hMiraMonLayer->ReadFeature.pNCoordRing = nullptr; } if (hMiraMonLayer->ReadFeature.pCoord) { free(hMiraMonLayer->ReadFeature.pCoord); hMiraMonLayer->ReadFeature.pCoord = nullptr; } if (hMiraMonLayer->ReadFeature.pZCoord) { free(hMiraMonLayer->ReadFeature.pZCoord); hMiraMonLayer->ReadFeature.pZCoord = nullptr; } if (hMiraMonLayer->ReadFeature.pRecords) { free(hMiraMonLayer->ReadFeature.pRecords); hMiraMonLayer->ReadFeature.pRecords = nullptr; } if (hMiraMonLayer->ReadFeature.flag_VFG) { free(hMiraMonLayer->ReadFeature.flag_VFG); hMiraMonLayer->ReadFeature.flag_VFG = nullptr; } if (hMiraMonLayer->pArcs) { VSIFree(hMiraMonLayer->pArcs); hMiraMonLayer->pArcs = nullptr; } if (hMiraMonLayer->szStringToOperate) { VSIFree(hMiraMonLayer->szStringToOperate); hMiraMonLayer->szStringToOperate = nullptr; hMiraMonLayer->nNumStringToOperate = 0; } if (hMiraMonLayer->pLayerDB) { if (hMiraMonLayer->pLayerDB->pFields) { VSIFree(hMiraMonLayer->pLayerDB->pFields); hMiraMonLayer->pLayerDB->pFields = nullptr; } VSIFree(hMiraMonLayer->pLayerDB); hMiraMonLayer->pLayerDB = nullptr; } // Destroys all database objects MMDestroyMMDB(hMiraMonLayer); return 0; } /* -------------------------------------------------------------------- */ /* Flush Layer Functions */ /* -------------------------------------------------------------------- */ // Initializes a MM_FLUSH_INFO structure, which is used for buffering // data before writing it to a file. int MMInitFlush(struct MM_FLUSH_INFO *pFlush, VSILFILE *pF, GUInt64 nBlockSize, char **pBuffer, MM_FILE_OFFSET DiskOffsetWhereToFlush, GInt32 nMyDiskSize) { memset(pFlush, 0, sizeof(*pFlush)); *pBuffer = nullptr; pFlush->nMyDiskSize = nMyDiskSize; pFlush->pF = pF; pFlush->nBlockSize = nBlockSize; pFlush->nNumBytes = 0; if (MMCheckSize_t(nBlockSize, 1)) return 1; if (!nBlockSize) { CPLError(CE_Failure, CPLE_OutOfMemory, "Error in MiraMon " "driver: MMInitFlush() with no bytes to process"); return 1; } if (nullptr == (*pBuffer = (char *)VSICalloc(1, (size_t)nBlockSize))) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMInitFlush())"); return 1; } pFlush->OffsetWhereToFlush = DiskOffsetWhereToFlush; pFlush->CurrentOffset = 0; return 0; } // Reads data from a file into a buffer. int MMReadFlush(struct MM_FLUSH_INFO *pFlush) { VSIFSeekL(pFlush->pF, pFlush->OffsetWhereToFlush, SEEK_SET); if (pFlush->nBlockSize != (GUInt64)(VSIFReadL(pFlush->pBlockWhereToSaveOrRead, 1, (size_t)pFlush->nBlockSize, pFlush->pF))) return 1; return 0; } // Flushes data from a buffer to a disk file. static int MMFlushToDisk(struct MM_FLUSH_INFO *FlushInfo) { if (!FlushInfo->nNumBytes) return 0; // Just flush to the disk at the correct place. VSIFSeekL(FlushInfo->pF, FlushInfo->OffsetWhereToFlush, SEEK_SET); if (FlushInfo->nNumBytes != (GUInt64)VSIFWriteL(FlushInfo->pBlockWhereToSaveOrRead, 1, (size_t)FlushInfo->nNumBytes, FlushInfo->pF)) return 1; FlushInfo->OffsetWhereToFlush += FlushInfo->nNumBytes; FlushInfo->NTimesFlushed++; FlushInfo->TotalSavedBytes += FlushInfo->nNumBytes; FlushInfo->nNumBytes = 0; return 0; } // Reads a block of data from a buffer in memory int MMReadBlockFromBuffer(struct MM_FLUSH_INFO *FlushInfo) { if (!FlushInfo->SizeOfBlockToBeSaved) return 0; if (FlushInfo->pBlockToBeSaved) { memcpy(FlushInfo->pBlockToBeSaved, (void *)((char *)FlushInfo->pBlockWhereToSaveOrRead + FlushInfo->CurrentOffset), FlushInfo->SizeOfBlockToBeSaved); } FlushInfo->CurrentOffset += FlushInfo->SizeOfBlockToBeSaved; return 0; } // Appends a block of data to a buffer in memory, which is // used for later flushing to disk. int MMAppendBlockToBuffer(struct MM_FLUSH_INFO *FlushInfo) { if (FlushInfo->SizeOfBlockToBeSaved) { // If all the bloc itself does not fit to the buffer, // then all the block is written directly to the disk if (FlushInfo->nNumBytes == 0 && FlushInfo->SizeOfBlockToBeSaved >= FlushInfo->nBlockSize) { if (MMFlushToDisk(FlushInfo)) return 1; return 0; } // There is space in FlushInfo->pBlockWhereToSaveOrRead? if (FlushInfo->nNumBytes + FlushInfo->SizeOfBlockToBeSaved <= FlushInfo->nBlockSize) { if (FlushInfo->pBlockToBeSaved) { memcpy((void *)((char *)FlushInfo->pBlockWhereToSaveOrRead + FlushInfo->nNumBytes), FlushInfo->pBlockToBeSaved, FlushInfo->SizeOfBlockToBeSaved); } else // Add zero characters { char zero_caracters[8] = {0, 0, 0, 0, 0, 0, 0, 0}; memcpy((char *)FlushInfo->pBlockWhereToSaveOrRead + FlushInfo->nNumBytes, zero_caracters, FlushInfo->SizeOfBlockToBeSaved); } FlushInfo->nNumBytes += FlushInfo->SizeOfBlockToBeSaved; } else { // Empty the buffer if (MMFlushToDisk(FlushInfo)) return 1; // Append the pendant bytes if (MMAppendBlockToBuffer(FlushInfo)) return 1; } return 0; } // Just flush to the disc. return MMFlushToDisk(FlushInfo); } // Copy the contents of a temporary file to a final file. // Used everywhere when closing layers. int MMMoveFromFileToFile(VSILFILE *pSrcFile, VSILFILE *pDestFile, MM_FILE_OFFSET *pnOffset) { size_t bufferSize = 1024 * 1024; // 1 MB buffer; unsigned char *buffer; size_t bytesRead, bytesWritten; if (!pSrcFile || !pDestFile || !pnOffset) return 0; buffer = (unsigned char *)VSICalloc(1, bufferSize); if (!buffer) return 1; VSIFSeekL(pSrcFile, 0, SEEK_SET); VSIFSeekL(pDestFile, *pnOffset, SEEK_SET); while ((bytesRead = VSIFReadL(buffer, sizeof(unsigned char), bufferSize, pSrcFile)) > 0) { bytesWritten = VSIFWriteL(buffer, sizeof(unsigned char), bytesRead, pDestFile); if (bytesWritten != bytesRead) { VSIFree(buffer); return 1; } (*pnOffset) += bytesWritten; } VSIFree(buffer); return 0; } /* -------------------------------------------------------------------- */ /* Layer: Offsets and variables types managing */ /* -------------------------------------------------------------------- */ // Alineation described in format documents. static void MMGetOffsetAlignedTo8(MM_FILE_OFFSET *Offset) { MM_FILE_OFFSET reajust; if ((*Offset) % 8L) { reajust = 8 - ((*Offset) % 8L); (*Offset) += reajust; } } // Reading integers depending on the version being read. int MMReadGUInt64DependingOnVersion(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MM_FLUSH_INFO *FlushInfo, GUInt64 *pnUI64) { uint32_t nUL32; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) { FlushInfo->pBlockToBeSaved = (void *)&nUL32; FlushInfo->SizeOfBlockToBeSaved = sizeof(nUL32); if (MMReadBlockFromBuffer(FlushInfo)) { FlushInfo->pBlockToBeSaved = nullptr; return 1; } *pnUI64 = (GUInt64)nUL32; } else { FlushInfo->pBlockToBeSaved = (void *)pnUI64; FlushInfo->SizeOfBlockToBeSaved = sizeof(*pnUI64); if (MMReadBlockFromBuffer(FlushInfo)) { FlushInfo->pBlockToBeSaved = nullptr; return 1; } } FlushInfo->pBlockToBeSaved = nullptr; return 0; } // Reading offsets depending on the version is being read. int MMReadOffsetDependingOnVersion(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MM_FLUSH_INFO *FlushInfo, MM_FILE_OFFSET *pnUI64) { uint32_t nUL32; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) { FlushInfo->pBlockToBeSaved = (void *)&nUL32; FlushInfo->SizeOfBlockToBeSaved = sizeof(nUL32); if (MMReadBlockFromBuffer(FlushInfo)) { FlushInfo->pBlockToBeSaved = nullptr; return 1; } *pnUI64 = (MM_FILE_OFFSET)nUL32; } else { FlushInfo->pBlockToBeSaved = (void *)pnUI64; FlushInfo->SizeOfBlockToBeSaved = sizeof(*pnUI64); if (MMReadBlockFromBuffer(FlushInfo)) { FlushInfo->pBlockToBeSaved = nullptr; return 1; } } FlushInfo->pBlockToBeSaved = nullptr; return 0; } // Appending integers depending on the version. int MMAppendIntegerDependingOnVersion( struct MiraMonVectLayerInfo *hMiraMonLayer, struct MM_FLUSH_INFO *FlushInfo, uint32_t *nUL32, GUInt64 nUI64) { int result; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) { *nUL32 = (uint32_t)nUI64; FlushInfo->SizeOfBlockToBeSaved = sizeof(*nUL32); hMiraMonLayer->OffsetCheck += FlushInfo->SizeOfBlockToBeSaved; FlushInfo->pBlockToBeSaved = (void *)nUL32; } else { FlushInfo->SizeOfBlockToBeSaved = sizeof(nUI64); hMiraMonLayer->OffsetCheck += FlushInfo->SizeOfBlockToBeSaved; FlushInfo->pBlockToBeSaved = (void *)&nUI64; } result = MMAppendBlockToBuffer(FlushInfo); FlushInfo->pBlockToBeSaved = nullptr; return result; } /* -------------------------------------------------------------------- */ /* Layer: Reading and writing layer sections */ /* This code follows the specifications of the following document: */ /* https://www.miramon.cat/new_note/eng/notes/ \ */ /* FormatFitxersTopologicsMiraMon.pdf */ /* -------------------------------------------------------------------- */ int MMReadAHArcSection(struct MiraMonVectLayerInfo *hMiraMonLayer) { MM_INTERNAL_FID iElem, nElem; struct MM_FLUSH_INFO FlushTMP; char *pBuffer = nullptr; MM_FILE_OFFSET nBlockSize; struct MiraMonArcLayer *pMMArcLayer; MM_N_VERTICES_TYPE nElementCount; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPolygon) { pMMArcLayer = &hMiraMonLayer->MMPolygon.MMArc; nElem = hMiraMonLayer->MMPolygon.TopArcHeader.nElemCount; } else { pMMArcLayer = &hMiraMonLayer->MMArc; nElem = hMiraMonLayer->TopHeader.nElemCount; } if (MMCheckSize_t(nElem, pMMArcLayer->nSizeArcHeader)) { return 1; } nBlockSize = nElem * (pMMArcLayer->nSizeArcHeader); if (MMInitFlush(&FlushTMP, pMMArcLayer->pF, nBlockSize, &pBuffer, hMiraMonLayer->nHeaderDiskSize, 0)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockWhereToSaveOrRead = (void *)pBuffer; if (MMReadFlush(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } for (iElem = 0; iElem < nElem; iElem++) { // Bounding box FlushTMP.pBlockToBeSaved = (void *)&(pMMArcLayer->pArcHeader[iElem].dfBB.dfMinX); FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMArcLayer->pArcHeader[iElem].dfBB.dfMinX); if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->pArcHeader[iElem].dfBB.dfMaxX; FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMArcLayer->pArcHeader[iElem].dfBB.dfMaxX); if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->pArcHeader[iElem].dfBB.dfMinY; FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMArcLayer->pArcHeader[iElem].dfBB.dfMinY); if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->pArcHeader[iElem].dfBB.dfMaxY; FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMArcLayer->pArcHeader[iElem].dfBB.dfMaxY); if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Element count: number of vertices of the arc nElementCount = pMMArcLayer->pArcHeader[iElem].nElemCount; if (MMReadGUInt64DependingOnVersion(hMiraMonLayer, &FlushTMP, &nElementCount)) { if (pBuffer) VSIFree(pBuffer); return 1; } pMMArcLayer->pArcHeader[iElem].nElemCount = nElementCount; // Offset: offset of the first vertice of the arc if (MMReadOffsetDependingOnVersion( hMiraMonLayer, &FlushTMP, &pMMArcLayer->pArcHeader[iElem].nOffset)) { if (pBuffer) VSIFree(pBuffer); return 1; } // First node: first node of the arc if (MMReadGUInt64DependingOnVersion( hMiraMonLayer, &FlushTMP, &pMMArcLayer->pArcHeader[iElem].nFirstIdNode)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Last node: first node of the arc if (MMReadGUInt64DependingOnVersion( hMiraMonLayer, &FlushTMP, &pMMArcLayer->pArcHeader[iElem].nLastIdNode)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Length of the arc FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->pArcHeader[iElem].dfLength; FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMArcLayer->pArcHeader[iElem].dfLength); if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } } if (pBuffer) VSIFree(pBuffer); return 0; } int MMWriteAHArcSection(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_FILE_OFFSET DiskOffset) { MM_INTERNAL_FID iElem; struct MM_FLUSH_INFO FlushTMP; char *pBuffer = nullptr; uint32_t nUL32; MM_FILE_OFFSET nOffsetDiff; struct MiraMonArcLayer *pMMArcLayer; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPolygon) pMMArcLayer = &hMiraMonLayer->MMPolygon.MMArc; else pMMArcLayer = &hMiraMonLayer->MMArc; nOffsetDiff = hMiraMonLayer->nHeaderDiskSize + hMiraMonLayer->nFinalElemCount * (pMMArcLayer->nSizeArcHeader); if (MMInitFlush(&FlushTMP, pMMArcLayer->pF, MM_1MB, &pBuffer, DiskOffset, 0)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockWhereToSaveOrRead = (void *)pBuffer; for (iElem = 0; iElem < hMiraMonLayer->nFinalElemCount; iElem++) { // Bounding box FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMArcLayer->pArcHeader[iElem].dfBB.dfMinX); FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->pArcHeader[iElem].dfBB.dfMinX; hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->pArcHeader[iElem].dfBB.dfMaxX; hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->pArcHeader[iElem].dfBB.dfMinY; hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->pArcHeader[iElem].dfBB.dfMaxY; hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Element count: number of vertices of the arc if (MMAppendIntegerDependingOnVersion( hMiraMonLayer, &FlushTMP, &nUL32, pMMArcLayer->pArcHeader[iElem].nElemCount)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Offset: offset of the first vertice of the arc if (MMAppendIntegerDependingOnVersion( hMiraMonLayer, &FlushTMP, &nUL32, pMMArcLayer->pArcHeader[iElem].nOffset + nOffsetDiff)) { if (pBuffer) VSIFree(pBuffer); return 1; } // First node: first node of the arc if (MMAppendIntegerDependingOnVersion( hMiraMonLayer, &FlushTMP, &nUL32, pMMArcLayer->pArcHeader[iElem].nFirstIdNode)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Last node: first node of the arc if (MMAppendIntegerDependingOnVersion( hMiraMonLayer, &FlushTMP, &nUL32, pMMArcLayer->pArcHeader[iElem].nLastIdNode)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Length of the arc FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMArcLayer->pArcHeader[iElem].dfLength); hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->pArcHeader[iElem].dfLength; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } } FlushTMP.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } if (pBuffer) VSIFree(pBuffer); return 0; } #ifdef JUST_IN_CASE_WE_NEED_IT_SOMEDAY static int MMReadNHNodeSection(struct MiraMonVectLayerInfo *hMiraMonLayer) { MM_INTERNAL_FID iElem, nElem; struct MM_FLUSH_INFO FlushTMP; char *pBuffer = nullptr; MM_FILE_OFFSET nBlockSize; struct MiraMonArcLayer *pMMArcLayer; if (hMiraMonLayer->bIsPolygon) pMMArcLayer = &hMiraMonLayer->MMPolygon.MMArc; else pMMArcLayer = &hMiraMonLayer->MMArc; nElem = pMMArcLayer->TopNodeHeader.nElemCount; nBlockSize = nElem * pMMArcLayer->MMNode.nSizeNodeHeader; if (MMInitFlush(&FlushTMP, pMMArcLayer->MMNode.pF, nBlockSize, &pBuffer, hMiraMonLayer->nHeaderDiskSize, 0)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockWhereToSaveOrRead = (void *)pBuffer; if (MMReadFlush(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } for (iElem = 0; iElem < nElem; iElem++) { // Arcs count FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->MMNode.pNodeHeader[iElem].nArcsCount; FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMArcLayer->MMNode.pNodeHeader[iElem].nArcsCount); if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Node type FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->MMNode.pNodeHeader[iElem].cNodeType; FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMArcLayer->MMNode.pNodeHeader[iElem].cNodeType); if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.SizeOfBlockToBeSaved = 1; FlushTMP.pBlockToBeSaved = (void *)nullptr; if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Offset: offset of the first arc to the node if (MMReadOffsetDependingOnVersion( hMiraMonLayer, &FlushTMP, &pMMArcLayer->MMNode.pNodeHeader[iElem].nOffset)) { if (pBuffer) VSIFree(pBuffer); return 1; } } if (pBuffer) VSIFree(pBuffer); return 0; } #endif // JUST_IN_CASE_WE_NEED_IT_SOMEDAY int MMWriteNHNodeSection(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_FILE_OFFSET DiskOffset) { MM_INTERNAL_FID iElem; struct MM_FLUSH_INFO FlushTMP; char *pBuffer = nullptr; uint32_t nUL32; MM_FILE_OFFSET nOffsetDiff; struct MiraMonArcLayer *pMMArcLayer; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPolygon) pMMArcLayer = &hMiraMonLayer->MMPolygon.MMArc; else pMMArcLayer = &hMiraMonLayer->MMArc; nOffsetDiff = hMiraMonLayer->nHeaderDiskSize + (pMMArcLayer->TopNodeHeader.nElemCount * pMMArcLayer->MMNode.nSizeNodeHeader); if (MMInitFlush(&FlushTMP, pMMArcLayer->MMNode.pF, MM_1MB, &pBuffer, DiskOffset, 0)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockWhereToSaveOrRead = (void *)pBuffer; for (iElem = 0; iElem < pMMArcLayer->TopNodeHeader.nElemCount; iElem++) { // Arcs count FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMArcLayer->MMNode.pNodeHeader[iElem].nArcsCount); hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->MMNode.pNodeHeader[iElem].nArcsCount; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Node type FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMArcLayer->MMNode.pNodeHeader[iElem].cNodeType); hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; FlushTMP.pBlockToBeSaved = (void *)&pMMArcLayer->MMNode.pNodeHeader[iElem].cNodeType; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.SizeOfBlockToBeSaved = 1; hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; FlushTMP.pBlockToBeSaved = (void *)nullptr; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Offset: offset of the first arc to the node if (MMAppendIntegerDependingOnVersion( hMiraMonLayer, &FlushTMP, &nUL32, pMMArcLayer->MMNode.pNodeHeader[iElem].nOffset + nOffsetDiff)) { if (pBuffer) VSIFree(pBuffer); return 1; } } FlushTMP.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } if (pBuffer) VSIFree(pBuffer); return 0; } int MMReadPHPolygonSection(struct MiraMonVectLayerInfo *hMiraMonLayer) { MM_INTERNAL_FID iElem; struct MM_FLUSH_INFO FlushTMP; char *pBuffer = nullptr; MM_FILE_OFFSET nBlockSize; struct MiraMonPolygonLayer *pMMPolygonLayer; if (!hMiraMonLayer) return 1; pMMPolygonLayer = &hMiraMonLayer->MMPolygon; if (MMCheckSize_t(hMiraMonLayer->TopHeader.nElemCount, pMMPolygonLayer->nPHElementSize) || MMCheckSize_t(hMiraMonLayer->MMPolygon.TopArcHeader.nElemCount, hMiraMonLayer->MMPolygon.nPSElementSize)) { return 1; } nBlockSize = hMiraMonLayer->TopHeader.nElemCount * (pMMPolygonLayer->nPHElementSize); if (MMInitFlush(&FlushTMP, pMMPolygonLayer->pF, nBlockSize, &pBuffer, hMiraMonLayer->nHeaderDiskSize + (hMiraMonLayer->MMPolygon.TopArcHeader.nElemCount * hMiraMonLayer->MMPolygon.nPSElementSize), 0)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockWhereToSaveOrRead = (void *)pBuffer; if (MMReadFlush(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } for (iElem = 0; iElem < hMiraMonLayer->TopHeader.nElemCount; iElem++) { // Bounding box FlushTMP.pBlockToBeSaved = (void *)&(pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMinX); FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMinX); if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMaxX; FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMaxX); if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMinY; FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMinY); if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMaxY; FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMaxY); if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Arcs count: number of arcs of the polygon if (MMReadGUInt64DependingOnVersion( hMiraMonLayer, &FlushTMP, &pMMPolygonLayer->pPolHeader[iElem].nArcsCount)) { if (pBuffer) VSIFree(pBuffer); return 1; } // External arcs count: number of external arcs of the polygon if (MMReadGUInt64DependingOnVersion( hMiraMonLayer, &FlushTMP, &pMMPolygonLayer->pPolHeader[iElem].nExternalRingsCount)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Rings count: number of rings of the polygon if (MMReadGUInt64DependingOnVersion( hMiraMonLayer, &FlushTMP, &pMMPolygonLayer->pPolHeader[iElem].nRingsCount)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Offset: offset of the first vertex of the arc if (MMReadOffsetDependingOnVersion( hMiraMonLayer, &FlushTMP, &pMMPolygonLayer->pPolHeader[iElem].nOffset)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Perimeter of the arc FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMPolygonLayer->pPolHeader[iElem].dfPerimeter); FlushTMP.pBlockToBeSaved = (void *)&pMMPolygonLayer->pPolHeader[iElem].dfPerimeter; if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Area of the arc FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMPolygonLayer->pPolHeader[iElem].dfArea); FlushTMP.pBlockToBeSaved = (void *)&pMMPolygonLayer->pPolHeader[iElem].dfArea; if (MMReadBlockFromBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } } if (pBuffer) VSIFree(pBuffer); return 0; } int MMWritePHPolygonSection(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_FILE_OFFSET DiskOffset) { MM_INTERNAL_FID iElem; struct MM_FLUSH_INFO FlushTMP; char *pBuffer = nullptr; uint32_t nUL32; MM_FILE_OFFSET nOffsetDiff; struct MiraMonPolygonLayer *pMMPolygonLayer; if (!hMiraMonLayer) return 1; pMMPolygonLayer = &hMiraMonLayer->MMPolygon; if (!pMMPolygonLayer->pF) return 0; if (!hMiraMonLayer->nFinalElemCount) return 0; nOffsetDiff = DiskOffset + hMiraMonLayer->TopHeader.nElemCount * (pMMPolygonLayer->nPHElementSize); if (MMInitFlush(&FlushTMP, pMMPolygonLayer->pF, MM_1MB, &pBuffer, DiskOffset, 0)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockWhereToSaveOrRead = (void *)pBuffer; for (iElem = 0; iElem < hMiraMonLayer->nFinalElemCount; iElem++) { // Bounding box FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMinX); FlushTMP.pBlockToBeSaved = (void *)&pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMinX; hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMaxX; hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMinY; hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } FlushTMP.pBlockToBeSaved = (void *)&pMMPolygonLayer->pPolHeader[iElem].dfBB.dfMaxY; hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Arcs count: number of the arcs of the polygon if (MMAppendIntegerDependingOnVersion( hMiraMonLayer, &FlushTMP, &nUL32, pMMPolygonLayer->pPolHeader[iElem].nArcsCount)) { if (pBuffer) VSIFree(pBuffer); return 1; } // External arcs count: number of external arcs of the polygon if (MMAppendIntegerDependingOnVersion( hMiraMonLayer, &FlushTMP, &nUL32, pMMPolygonLayer->pPolHeader[iElem].nExternalRingsCount)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Rings count: number of rings of the polygon if (MMAppendIntegerDependingOnVersion( hMiraMonLayer, &FlushTMP, &nUL32, pMMPolygonLayer->pPolHeader[iElem].nRingsCount)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Offset: offset of the first vertex of the arc if (MMAppendIntegerDependingOnVersion( hMiraMonLayer, &FlushTMP, &nUL32, pMMPolygonLayer->pPolHeader[iElem].nOffset + nOffsetDiff)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Perimeter of the arc FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMPolygonLayer->pPolHeader[iElem].dfPerimeter); hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; FlushTMP.pBlockToBeSaved = (void *)&pMMPolygonLayer->pPolHeader[iElem].dfPerimeter; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } // Area of the arc FlushTMP.SizeOfBlockToBeSaved = sizeof(pMMPolygonLayer->pPolHeader[iElem].dfArea); hMiraMonLayer->OffsetCheck += FlushTMP.SizeOfBlockToBeSaved; FlushTMP.pBlockToBeSaved = (void *)&pMMPolygonLayer->pPolHeader[iElem].dfArea; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } } FlushTMP.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&FlushTMP)) { if (pBuffer) VSIFree(pBuffer); return 1; } if (pBuffer) VSIFree(pBuffer); return 0; } /* -------------------------------------------------------------------- */ /* Feature Functions */ /* -------------------------------------------------------------------- */ int MMInitFeature(struct MiraMonFeature *hMMFeature) { memset(hMMFeature, 0, sizeof(*hMMFeature)); hMMFeature->nMaxMRecords = MM_INIT_NUMBER_OF_RECORDS; if (MMCheckSize_t(hMMFeature->nMaxMRecords, sizeof(*(hMMFeature->pRecords)))) return 1; if (!hMMFeature->nMaxMRecords) return 0; // No elements nothing to do. if ((hMMFeature->pRecords = VSICalloc((size_t)hMMFeature->nMaxMRecords, sizeof(*(hMMFeature->pRecords)))) == nullptr) return 1; hMMFeature->pRecords[0].nMaxField = MM_INIT_NUMBER_OF_FIELDS; hMMFeature->pRecords[0].nNumField = 0; if (MMCheckSize_t(hMMFeature->pRecords[0].nMaxField, sizeof(*(hMMFeature->pRecords[0].pField)))) return 1; if (nullptr == (hMMFeature->pRecords[0].pField = VSICalloc((size_t)hMMFeature->pRecords[0].nMaxField, sizeof(*(hMMFeature->pRecords[0].pField))))) return 1; return 0; } // Conserves all allocated memory but resets the information void MMResetFeatureGeometry(struct MiraMonFeature *hMMFeature) { if (hMMFeature->pNCoordRing) { memset(hMMFeature->pNCoordRing, 0, (size_t)hMMFeature->nMaxpNCoordRing * sizeof(*(hMMFeature->pNCoordRing))); } if (hMMFeature->pCoord) { memset(hMMFeature->pCoord, 0, (size_t)hMMFeature->nMaxpCoord * sizeof(*(hMMFeature->pCoord))); } hMMFeature->nICoord = 0; if (hMMFeature->pZCoord) { memset(hMMFeature->pZCoord, 0, (size_t)hMMFeature->nMaxpZCoord * sizeof(*(hMMFeature->pZCoord))); } hMMFeature->nNRings = 0; hMMFeature->nIRing = 0; if (hMMFeature->flag_VFG) { memset(hMMFeature->flag_VFG, 0, (size_t)hMMFeature->nMaxVFG * sizeof(*(hMMFeature->flag_VFG))); } } // Preserves all allocated memory but initializes it to zero. void MMResetFeatureRecord(struct MiraMonFeature *hMMFeature) { MM_EXT_DBF_N_MULTIPLE_RECORDS nIRecord; MM_EXT_DBF_N_FIELDS nIField; if (!hMMFeature->pRecords) return; for (nIRecord = 0; nIRecord < hMMFeature->nMaxMRecords; nIRecord++) { if (!hMMFeature->pRecords[nIRecord].pField) continue; for (nIField = 0; nIField < hMMFeature->pRecords[nIRecord].nMaxField; nIField++) { if (hMMFeature->pRecords[nIRecord].pField[nIField].pDinValue) *(hMMFeature->pRecords[nIRecord].pField[nIField].pDinValue) = '\0'; hMMFeature->pRecords[nIRecord].pField[nIField].bIsValid = 0; } hMMFeature->pRecords[nIRecord].nNumField = 0; } hMMFeature->nNumMRecords = 0; } // Destroys all allocated memory void MMDestroyFeature(struct MiraMonFeature *hMMFeature) { if (hMMFeature->pCoord) { VSIFree(hMMFeature->pCoord); hMMFeature->pCoord = nullptr; } if (hMMFeature->pZCoord) { VSIFree(hMMFeature->pZCoord); hMMFeature->pZCoord = nullptr; } if (hMMFeature->pNCoordRing) { VSIFree(hMMFeature->pNCoordRing); hMMFeature->pNCoordRing = nullptr; } if (hMMFeature->flag_VFG) { VSIFree(hMMFeature->flag_VFG); hMMFeature->flag_VFG = nullptr; } if (hMMFeature->pRecords) { MM_EXT_DBF_N_MULTIPLE_RECORDS nIRecord; MM_EXT_DBF_N_FIELDS nIField; for (nIRecord = 0; nIRecord < hMMFeature->nMaxMRecords; nIRecord++) { if (!hMMFeature->pRecords[nIRecord].pField) continue; for (nIField = 0; nIField < hMMFeature->pRecords[nIRecord].nMaxField; nIField++) { if (hMMFeature->pRecords[nIRecord].pField[nIField].pDinValue) VSIFree(hMMFeature->pRecords[nIRecord] .pField[nIField] .pDinValue); } VSIFree(hMMFeature->pRecords[nIRecord].pField); } VSIFree(hMMFeature->pRecords); hMMFeature->pRecords = nullptr; } hMMFeature->nNRings = 0; hMMFeature->nNumMRecords = 0; hMMFeature->nMaxMRecords = 0; } // Creates a MiraMon polygon, multipolygon, or linestring (arc) feature. static int MMCreateFeaturePolOrArc(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature) { double *pZ = nullptr; struct MM_POINT_2D *pCoord, *pCoordReal; MM_POLYGON_RINGS_COUNT nIPart; MM_N_VERTICES_TYPE nIVertice; double dtempx, dtempy; MM_POLYGON_RINGS_COUNT nExternalRingsCount; struct MM_PH *pCurrentPolHeader = nullptr; struct MM_AH *pCurrentArcHeader; // To access how many points have been stored in the last stringline struct MM_AH *pLastArcHeader = nullptr; struct MM_NH *pCurrentNodeHeader, *pCurrentNodeHeaderPlus1 = nullptr; uint32_t UnsignedLongNumber; struct MiraMonArcLayer *pMMArc; struct MiraMonNodeLayer *pMMNode; struct MM_TH *pArcTopHeader; struct MM_TH *pNodeTopHeader; char VFG = 0; MM_FILE_OFFSET nOffsetTmp; struct MM_ZD *pZDesc = nullptr; struct MM_FLUSH_INFO *pFlushAL, *pFlushNL, *pFlushZL, *pFlushPS, *pFlushPAL; MM_N_VERTICES_TYPE nPolVertices = 0; MM_BOOLEAN bReverseArc; int prevCoord = -1; MM_BOOLEAN bPolZeroJustCreated = FALSE; if (!hMiraMonLayer) return MM_FATAL_ERROR_WRITING_FEATURES; if (!hMMFeature) return MM_FATAL_ERROR_WRITING_FEATURES; // Setting pointer to 3D structure (if exists). if (hMiraMonLayer->TopHeader.bIs3d) pZ = hMMFeature->pZCoord; // Setting pointers to arc/node structures. if (hMiraMonLayer->bIsPolygon) { pMMArc = &hMiraMonLayer->MMPolygon.MMArc; pArcTopHeader = &hMiraMonLayer->MMPolygon.TopArcHeader; pMMNode = &hMiraMonLayer->MMPolygon.MMArc.MMNode; pNodeTopHeader = &hMiraMonLayer->MMPolygon.MMArc.TopNodeHeader; } else { pMMArc = &hMiraMonLayer->MMArc; pArcTopHeader = &hMiraMonLayer->TopHeader; pMMNode = &hMiraMonLayer->MMArc.MMNode; pNodeTopHeader = &hMiraMonLayer->MMArc.TopNodeHeader; } // Setting pointers to polygon structures if (hMiraMonLayer->bIsPolygon) { if (MMResizePolHeaderPointer(&hMiraMonLayer->MMPolygon.pPolHeader, &hMiraMonLayer->MMPolygon.nMaxPolHeader, hMiraMonLayer->TopHeader.nElemCount, MM_INCR_NUMBER_OF_POLYGONS, 0)) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizePolHeaderPointer())"); return MM_FATAL_ERROR_WRITING_FEATURES; } pCurrentPolHeader = hMiraMonLayer->MMPolygon.pPolHeader + hMiraMonLayer->TopHeader.nElemCount; MMInitBoundingBox(&pCurrentPolHeader->dfBB); pCurrentPolHeader->dfPerimeter = 0; pCurrentPolHeader->dfArea = 0L; } // Setting flushes to all sections described in // format specifications document. pFlushAL = &pMMArc->FlushAL; pFlushNL = &pMMNode->FlushNL; pFlushZL = &pMMArc->pZSection.FlushZL; pFlushPS = &hMiraMonLayer->MMPolygon.FlushPS; pFlushPAL = &hMiraMonLayer->MMPolygon.FlushPAL; pFlushNL->pBlockWhereToSaveOrRead = (void *)pMMNode->pNL; pFlushAL->pBlockWhereToSaveOrRead = (void *)pMMArc->pAL; if (hMiraMonLayer->TopHeader.bIs3d) pFlushZL->pBlockWhereToSaveOrRead = (void *)pMMArc->pZSection.pZL; if (hMiraMonLayer->bIsPolygon) { pFlushPS->pBlockWhereToSaveOrRead = (void *)hMiraMonLayer->MMPolygon.pPS; pFlushPAL->pBlockWhereToSaveOrRead = (void *)hMiraMonLayer->MMPolygon.pPAL; } // Creation of the MiraMon extended database if (!hMiraMonLayer->bIsPolygon) { if (hMiraMonLayer->TopHeader.nElemCount == 0) { CPLDebugOnly("MiraMon", "Creating MiraMon database"); if (MMCreateMMDB(hMiraMonLayer, hMMFeature->pCoord)) return MM_FATAL_ERROR_WRITING_FEATURES; CPLDebugOnly("MiraMon", "MiraMon database created. " "Creating features..."); } } else { // Universal polygon has been created if (hMiraMonLayer->TopHeader.nElemCount == 1) { CPLDebugOnly("MiraMon", "Creating MiraMon database"); if (MMCreateMMDB(hMiraMonLayer, hMMFeature->pCoord)) return MM_FATAL_ERROR_WRITING_FEATURES; CPLDebugOnly("MiraMon", "MiraMon database created. " "Creating features..."); // Universal polygon have a record with ID_GRAFIC=0 and blancs if (MMAddPolygonRecordToMMDB(hMiraMonLayer, nullptr, 0, 0, nullptr)) { // Rare case where polygon zero creates the database // but some error occurs in the creation of the polygon zero. // The database must be destroyed and created again // next time the polygon zero is created. MMCloseMMBD_XP(hMiraMonLayer); MMDestroyMMDB(hMiraMonLayer); return MM_FATAL_ERROR_WRITING_FEATURES; } bPolZeroJustCreated = TRUE; } } // Checking if its possible continue writing the file due // to version limitations. if (hMiraMonLayer->LayerVersion == MM_32BITS_VERSION) { MM_FILE_OFFSET nNodeOffset, nArcOffset; MM_INTERNAL_FID nArcElemCount, nNodeElemCount; GInt32 nLastZCount = 0; MM_FILE_OFFSET nLastOffsetZ = 0; MM_INTERNAL_FID nLastElemCount = 0; nNodeOffset = pFlushNL->TotalSavedBytes + pFlushNL->nNumBytes; nArcOffset = pMMArc->nOffsetArc; nArcElemCount = pArcTopHeader->nElemCount; nNodeElemCount = pNodeTopHeader->nElemCount; for (nIPart = 0; nIPart < hMMFeature->nNRings; nIPart++, nArcElemCount++, nNodeElemCount += (hMiraMonLayer->bIsPolygon ? 1 : 2)) { // There is space for the element that is going to be written? // Polygon or arc if (MMCheckVersionForFID(hMiraMonLayer, hMiraMonLayer->TopHeader.nElemCount)) { CPLError(CE_Failure, CPLE_NotSupported, "Error in MMCheckVersionForFID() (1)"); return MM_STOP_WRITING_FEATURES; } // Arc if there is no polygon if (MMCheckVersionForFID(hMiraMonLayer, nArcElemCount)) { CPLError(CE_Failure, CPLE_NotSupported, "Error in MMCheckVersionForFID() (2)"); return MM_STOP_WRITING_FEATURES; } // Nodes if (MMCheckVersionForFID(hMiraMonLayer, nNodeElemCount)) { CPLError(CE_Failure, CPLE_NotSupported, "Error in MMCheckVersionForFID() (3)"); return MM_STOP_WRITING_FEATURES; } // There is space for the last node(s) that is(are) going to be written? if (!hMiraMonLayer->bIsPolygon) { if (MMCheckVersionForFID(hMiraMonLayer, nNodeElemCount + 1)) { CPLError(CE_Failure, CPLE_NotSupported, "Error in MMCheckVersionForFID() (4)"); return MM_STOP_WRITING_FEATURES; } } // Checking offsets // AL: check the last point if (MMCheckVersionOffset(hMiraMonLayer, nArcOffset)) { CPLDebugOnly("MiraMon", "Error in MMCheckVersionOffset() (0)"); return MM_STOP_WRITING_FEATURES; } // Setting next offset nArcOffset += (hMMFeature->pNCoordRing[nIPart]) * pMMArc->nALElementSize; // NL: check the last node if (hMiraMonLayer->bIsPolygon) nNodeOffset += (hMMFeature->nNRings) * MM_SIZE_OF_NL_32BITS; else nNodeOffset += (2 * hMMFeature->nNRings) * MM_SIZE_OF_NL_32BITS; if (MMCheckVersionOffset(hMiraMonLayer, nNodeOffset)) { CPLDebugOnly("MiraMon", "Error in MMCheckVersionOffset() (1)"); return MM_STOP_WRITING_FEATURES; } // Setting next offset nNodeOffset += MM_SIZE_OF_NL_32BITS; if (!hMiraMonLayer->bIsPolygon) { if (MMCheckVersionOffset(hMiraMonLayer, nNodeOffset)) { CPLDebugOnly("MiraMon", "Error in MMCheckVersionOffset() (2)"); return MM_STOP_WRITING_FEATURES; } // Setting next offset nNodeOffset += MM_SIZE_OF_NL_32BITS; } // Where 3D part is going to start if (hMiraMonLayer->TopHeader.bIs3d) { if (nArcElemCount == 0) { if (MMCheckVersionFor3DOffset(hMiraMonLayer, nArcElemCount + 1, 0, 0)) return MM_STOP_WRITING_FEATURES; } else { pZDesc = pMMArc->pZSection.pZDescription; if (!pZDesc) { CPLError(CE_Failure, CPLE_ObjectNull, "Error: pZDescription should not be nullptr"); return MM_STOP_WRITING_FEATURES; } if (nIPart == 0) { nLastZCount = pZDesc[nArcElemCount - 1].nZCount; nLastOffsetZ = pZDesc[nArcElemCount - 1].nOffsetZ; } if (nLastZCount < 0) { // One altitude was written on last element if (MMCheckVersionFor3DOffset( hMiraMonLayer, nArcElemCount + 1, nArcOffset, nLastOffsetZ + sizeof(*pZ))) return MM_STOP_WRITING_FEATURES; // For the next iteration in this multipart feature nLastOffsetZ += sizeof(*pZ); } else { // One for each vertice altitude was written on last element if (nIPart == 0) { nLastElemCount = (pMMArc->pArcHeader + pArcTopHeader->nElemCount - 1) ->nElemCount; } else { nLastElemCount += hMMFeature->pNCoordRing[nIPart]; } if (MMCheckVersionFor3DOffset( hMiraMonLayer, nArcElemCount + 1, nArcOffset, nLastOffsetZ + sizeof(*pZ) * nLastElemCount)) return MM_STOP_WRITING_FEATURES; // For the next iteration in this multipart feature nLastOffsetZ += sizeof(*pZ) * nLastElemCount; } } } } } // Going through parts of the feature. nExternalRingsCount = 0; pCoord = hMMFeature->pCoord; if (!pCoord) { if (bPolZeroJustCreated) { // Rare case where polygon zero creates the database // but some error occurs in the creation of the polygon zero. // The database must be destroyed and created again // next time the polygon zero is created. MMCloseMMBD_XP(hMiraMonLayer); MMDestroyMMDB(hMiraMonLayer); } return MM_FATAL_ERROR_WRITING_FEATURES; } // Doing real job for (nIPart = 0; nIPart < hMMFeature->nNRings; nIPart++, pArcTopHeader->nElemCount++, pNodeTopHeader->nElemCount += (hMiraMonLayer->bIsPolygon ? 1 : 2)) { // Resize structures if necessary if (MMResizeArcHeaderPointer( &pMMArc->pArcHeader, &pMMArc->nMaxArcHeader, pArcTopHeader->nElemCount + 1, MM_INCR_NUMBER_OF_ARCS, 0)) { CPLDebugOnly("MiraMon", "Error in MMResizeArcHeaderPointer()"); CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMCreateFeaturePolOrArc())"); return MM_FATAL_ERROR_WRITING_FEATURES; } if (MMResizeNodeHeaderPointer( &pMMNode->pNodeHeader, &pMMNode->nMaxNodeHeader, hMiraMonLayer->bIsPolygon ? pNodeTopHeader->nElemCount + 1 : pNodeTopHeader->nElemCount + 2, MM_INCR_NUMBER_OF_NODES, 0)) { CPLDebugOnly("MiraMon", "Error in MMResizeNodeHeaderPointer()"); CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMCreateFeaturePolOrArc())"); return MM_FATAL_ERROR_WRITING_FEATURES; } if (hMiraMonLayer->TopHeader.bIs3d) { if (MMResizeZSectionDescrPointer( &pMMArc->pZSection.pZDescription, &pMMArc->pZSection.nMaxZDescription, pMMArc->nMaxArcHeader, MM_INCR_NUMBER_OF_ARCS, 0)) { CPLDebugOnly("MiraMon", "Error in MMResizeZSectionDescrPointer()"); CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMCreateFeaturePolOrArc())"); return MM_FATAL_ERROR_WRITING_FEATURES; } pZDesc = pMMArc->pZSection.pZDescription; } // Setting pointers to current headers pCurrentArcHeader = pMMArc->pArcHeader + pArcTopHeader->nElemCount; MMInitBoundingBox(&pCurrentArcHeader->dfBB); pCurrentNodeHeader = pMMNode->pNodeHeader + pNodeTopHeader->nElemCount; if (!hMiraMonLayer->bIsPolygon) pCurrentNodeHeaderPlus1 = pCurrentNodeHeader + 1; // Initializing feature information (section AH/PH) pCurrentArcHeader->nElemCount = hMMFeature->pNCoordRing[nIPart]; pCurrentArcHeader->dfLength = 0.0; pCurrentArcHeader->nOffset = pFlushAL->TotalSavedBytes + pFlushAL->nNumBytes; // Dumping vertices and calculating stuff that // MiraMon needs (longitude/perimeter, area) bReverseArc = FALSE; if (hMiraMonLayer->bIsPolygon) { VFG = hMMFeature->flag_VFG[nIPart]; bReverseArc = (VFG & MM_ROTATE_ARC) ? TRUE : FALSE; } if (bReverseArc) { prevCoord = 1; // to find previous coordinate pCoordReal = pCoord + pCurrentArcHeader->nElemCount - 1; } else { prevCoord = -1; // to find previous coordinate pCoordReal = pCoord; } for (nIVertice = 0; nIVertice < pCurrentArcHeader->nElemCount; nIVertice++, (bReverseArc) ? pCoordReal-- : pCoordReal++) { // Writing the arc in the normal way pFlushAL->SizeOfBlockToBeSaved = sizeof(pCoordReal->dfX); pFlushAL->pBlockToBeSaved = (void *)&(pCoord + nIVertice)->dfX; if (MMAppendBlockToBuffer(pFlushAL)) { CPLDebugOnly("MiraMon", "Error in MMAppendBlockToBuffer() (1)"); return MM_FATAL_ERROR_WRITING_FEATURES; } pFlushAL->pBlockToBeSaved = (void *)&(pCoord + nIVertice)->dfY; if (MMAppendBlockToBuffer(pFlushAL)) { CPLDebugOnly("MiraMon", "Error in MMAppendBlockToBuffer() (2)"); return MM_FATAL_ERROR_WRITING_FEATURES; } // Calculating stuff using the inverse coordinates if it's needed MMUpdateBoundingBoxXY(&pCurrentArcHeader->dfBB, pCoordReal); if (nIVertice == 0 || nIVertice == pCurrentArcHeader->nElemCount - 1) MMUpdateBoundingBoxXY(&pNodeTopHeader->hBB, pCoordReal); if (nIVertice > 0) { dtempx = pCoordReal->dfX - (pCoordReal + prevCoord)->dfX; dtempy = pCoordReal->dfY - (pCoordReal + prevCoord)->dfY; pCurrentArcHeader->dfLength += sqrt(dtempx * dtempx + dtempy * dtempy); if (hMiraMonLayer->bIsPolygon && pCurrentPolHeader) { pCurrentPolHeader->dfArea += (pCoordReal->dfX * (pCoordReal + prevCoord)->dfY - (pCoordReal + prevCoord)->dfX * pCoordReal->dfY); } } } if (bReverseArc) pCoord = pCoordReal + pCurrentArcHeader->nElemCount + 1; else pCoord += pCurrentArcHeader->nElemCount; nPolVertices += pCurrentArcHeader->nElemCount; // Updating bounding boxes MMUpdateBoundingBox(&pArcTopHeader->hBB, &pCurrentArcHeader->dfBB); if (hMiraMonLayer->bIsPolygon) MMUpdateBoundingBox(&hMiraMonLayer->TopHeader.hBB, &pCurrentArcHeader->dfBB); pMMArc->nOffsetArc += (pCurrentArcHeader->nElemCount) * pMMArc->nALElementSize; pCurrentArcHeader->nFirstIdNode = (2 * pArcTopHeader->nElemCount); if (hMiraMonLayer->bIsPolygon) { pCurrentArcHeader->nFirstIdNode = pArcTopHeader->nElemCount; pCurrentArcHeader->nLastIdNode = pArcTopHeader->nElemCount; } else { pCurrentArcHeader->nFirstIdNode = (2 * pArcTopHeader->nElemCount); pCurrentArcHeader->nLastIdNode = (2 * pArcTopHeader->nElemCount + 1); } if (MMAddArcRecordToMMDB(hMiraMonLayer, hMMFeature, pArcTopHeader->nElemCount, pCurrentArcHeader)) { CPLDebugOnly("MiraMon", "Error in MMAddArcRecordToMMDB()"); return MM_FATAL_ERROR_WRITING_FEATURES; } // Node Stuff: writing NL section pCurrentNodeHeader->nArcsCount = 1; if (hMiraMonLayer->bIsPolygon) pCurrentNodeHeader->cNodeType = MM_RING_NODE; else pCurrentNodeHeader->cNodeType = MM_FINAL_NODE; pCurrentNodeHeader->nOffset = pFlushNL->TotalSavedBytes + pFlushNL->nNumBytes; if (MMAppendIntegerDependingOnVersion(hMiraMonLayer, pFlushNL, &UnsignedLongNumber, pArcTopHeader->nElemCount)) { CPLDebugOnly("MiraMon", "Error in MMAppendIntegerDependingOnVersion()"); return MM_FATAL_ERROR_WRITING_FEATURES; } // 8bytes alignment nOffsetTmp = pFlushNL->TotalSavedBytes + pFlushNL->nNumBytes; MMGetOffsetAlignedTo8(&nOffsetTmp); if (nOffsetTmp != pFlushNL->TotalSavedBytes + pFlushNL->nNumBytes) { pFlushNL->SizeOfBlockToBeSaved = (size_t)(nOffsetTmp - (pFlushNL->TotalSavedBytes + pFlushNL->nNumBytes)); pFlushNL->pBlockToBeSaved = (void *)nullptr; if (MMAppendBlockToBuffer(pFlushNL)) { CPLDebugOnly("MiraMon", "Error in MMAppendBlockToBuffer() (3)"); return MM_FATAL_ERROR_WRITING_FEATURES; } } if (MMAddNodeRecordToMMDB(hMiraMonLayer, pNodeTopHeader->nElemCount, pCurrentNodeHeader)) { CPLDebugOnly("MiraMon", "Error in MMAddNodeRecordToMMDB()"); return MM_FATAL_ERROR_WRITING_FEATURES; } if (!hMiraMonLayer->bIsPolygon) { pCurrentNodeHeaderPlus1->nArcsCount = 1; if (hMiraMonLayer->bIsPolygon) pCurrentNodeHeaderPlus1->cNodeType = MM_RING_NODE; else pCurrentNodeHeaderPlus1->cNodeType = MM_FINAL_NODE; pCurrentNodeHeaderPlus1->nOffset = pFlushNL->TotalSavedBytes + pFlushNL->nNumBytes; if (MMAppendIntegerDependingOnVersion(hMiraMonLayer, pFlushNL, &UnsignedLongNumber, pArcTopHeader->nElemCount)) { CPLDebugOnly("MiraMon", "Error in MMAppendIntegerDependingOnVersion()"); return MM_FATAL_ERROR_WRITING_FEATURES; } // 8bytes alignment nOffsetTmp = pFlushNL->TotalSavedBytes + pFlushNL->nNumBytes; MMGetOffsetAlignedTo8(&nOffsetTmp); if (nOffsetTmp != pFlushNL->TotalSavedBytes + pFlushNL->nNumBytes) { pFlushNL->SizeOfBlockToBeSaved = (size_t)(nOffsetTmp - (pFlushNL->TotalSavedBytes + pFlushNL->nNumBytes)); pFlushNL->pBlockToBeSaved = (void *)nullptr; if (MMAppendBlockToBuffer(pFlushNL)) { CPLDebugOnly("MiraMon", "Error in MMAppendBlockToBuffer()"); return MM_FATAL_ERROR_WRITING_FEATURES; } } if (MMAddNodeRecordToMMDB(hMiraMonLayer, pNodeTopHeader->nElemCount + 1, pCurrentNodeHeaderPlus1)) { CPLDebugOnly("MiraMon", "Error in MMAddNodeRecordToMMDB()"); return MM_FATAL_ERROR_WRITING_FEATURES; } } // 3D stuff if (hMiraMonLayer->TopHeader.bIs3d && pZDesc) { pZDesc[pArcTopHeader->nElemCount].dfBBminz = STATISTICAL_UNDEF_VALUE; pZDesc[pArcTopHeader->nElemCount].dfBBmaxz = -STATISTICAL_UNDEF_VALUE; // Number of arc altitudes. If the number of altitudes is // positive this indicates the number of altitudes for // each vertex of the arc, and all the altitudes of the // vertex 0 are written first, then those of the vertex 1, // etc. If the number of altitudes is negative this // indicates the number of arc altitudes, understanding // that all the vertices have the same altitude (it is // the case of a contour line, for example). for (nIVertice = 0; nIVertice < pCurrentArcHeader->nElemCount; nIVertice++, pZ++) { pFlushZL->SizeOfBlockToBeSaved = sizeof(*pZ); pFlushZL->pBlockToBeSaved = (void *)pZ; if (MMAppendBlockToBuffer(pFlushZL)) { CPLDebugOnly("MiraMon", "Error in MMAppendBlockToBuffer()"); return MM_FATAL_ERROR_WRITING_FEATURES; } if (pZDesc[pArcTopHeader->nElemCount].dfBBminz > *pZ) pZDesc[pArcTopHeader->nElemCount].dfBBminz = *pZ; if (pZDesc[pArcTopHeader->nElemCount].dfBBmaxz < *pZ) pZDesc[pArcTopHeader->nElemCount].dfBBmaxz = *pZ; if (pMMArc->pZSection.ZHeader.dfBBminz > *pZ) pMMArc->pZSection.ZHeader.dfBBminz = *pZ; if (pMMArc->pZSection.ZHeader.dfBBmaxz < *pZ) pMMArc->pZSection.ZHeader.dfBBmaxz = *pZ; // Only one altitude (the same for all vertices) is written if (hMMFeature->bAllZHaveSameValue) break; } if (hMMFeature->bAllZHaveSameValue) { // Same altitude for all vertices pZDesc[pArcTopHeader->nElemCount].nZCount = -1; } else { // One different altitude for each vertice pZDesc[pArcTopHeader->nElemCount].nZCount = 1; } if (pArcTopHeader->nElemCount == 0) pZDesc[pArcTopHeader->nElemCount].nOffsetZ = 0; else { if (pZDesc[pArcTopHeader->nElemCount - 1].nZCount < 0) { pZDesc[pArcTopHeader->nElemCount].nOffsetZ = pZDesc[pArcTopHeader->nElemCount - 1].nOffsetZ + sizeof(*pZ); } else { pLastArcHeader = pMMArc->pArcHeader + pArcTopHeader->nElemCount - 1; pZDesc[pArcTopHeader->nElemCount].nOffsetZ = pZDesc[pArcTopHeader->nElemCount - 1].nOffsetZ + sizeof(*pZ) * (pLastArcHeader->nElemCount); } } } // Exclusive polygon stuff if (hMiraMonLayer->bIsPolygon && pCurrentPolHeader) { // PS SECTION if (MMAppendIntegerDependingOnVersion(hMiraMonLayer, pFlushPS, &UnsignedLongNumber, 0)) { CPLDebugOnly("MiraMon", "Error in MMAppendIntegerDependingOnVersion()"); return MM_FATAL_ERROR_WRITING_FEATURES; } if (MMAppendIntegerDependingOnVersion( hMiraMonLayer, pFlushPS, &UnsignedLongNumber, hMiraMonLayer->TopHeader.nElemCount)) { CPLDebugOnly("MiraMon", "Error in MMAppendIntegerDependingOnVersion()"); return MM_FATAL_ERROR_WRITING_FEATURES; } // PAL SECTION // Vertices of rings defining // holes in polygons are in a counterclockwise direction. // Holes are at the end of all external rings that contain the holes!! if (VFG & MM_EXTERIOR_ARC_SIDE) nExternalRingsCount++; pCurrentPolHeader->nArcsCount++; //(MM_POLYGON_ARCS_COUNT)hMMFeature->nNRings; if (VFG & MM_EXTERIOR_ARC_SIDE) pCurrentPolHeader ->nExternalRingsCount++; //= nExternalRingsCount; if (VFG & MM_END_ARC_IN_RING) pCurrentPolHeader->nRingsCount++; //= hMMFeature->nNRings; if (nIPart == 0) { pCurrentPolHeader->nOffset = pFlushPAL->TotalSavedBytes + pFlushPAL->nNumBytes; } if (nIPart == hMMFeature->nNRings - 1) pCurrentPolHeader->dfArea /= 2; pFlushPAL->SizeOfBlockToBeSaved = 1; pFlushPAL->pBlockToBeSaved = (void *)&VFG; if (MMAppendBlockToBuffer(pFlushPAL)) { CPLDebugOnly("MiraMon", "Error in MMAppendBlockToBuffer()"); return MM_FATAL_ERROR_WRITING_FEATURES; } if (MMAppendIntegerDependingOnVersion(hMiraMonLayer, pFlushPAL, &UnsignedLongNumber, pArcTopHeader->nElemCount)) { CPLDebugOnly("MiraMon", "Error in MMAppendIntegerDependingOnVersion()"); return MM_FATAL_ERROR_WRITING_FEATURES; } // 8bytes alignment if (nIPart == hMMFeature->nNRings - 1) { nOffsetTmp = pFlushPAL->TotalSavedBytes + pFlushPAL->nNumBytes; MMGetOffsetAlignedTo8(&nOffsetTmp); if (nOffsetTmp != pFlushPAL->TotalSavedBytes + pFlushPAL->nNumBytes) { pFlushPAL->SizeOfBlockToBeSaved = (size_t)(nOffsetTmp - (pFlushPAL->TotalSavedBytes + pFlushPAL->nNumBytes)); pFlushPAL->pBlockToBeSaved = (void *)nullptr; if (MMAppendBlockToBuffer(pFlushPAL)) { CPLDebugOnly("MiraMon", "Error in MMAppendBlockToBuffer()"); return MM_FATAL_ERROR_WRITING_FEATURES; } } } MMUpdateBoundingBox(&pCurrentPolHeader->dfBB, &pCurrentArcHeader->dfBB); pCurrentPolHeader->dfPerimeter += pCurrentArcHeader->dfLength; } } // Updating element count and if the polygon is multipart. // MiraMon does not accept multipoints or multilines, only multipolygons. if (hMiraMonLayer->bIsPolygon) { if (MMAddPolygonRecordToMMDB(hMiraMonLayer, hMMFeature, hMiraMonLayer->TopHeader.nElemCount, nPolVertices, pCurrentPolHeader)) { CPLDebugOnly("MiraMon", "Error in MMAddPolygonRecordToMMDB()"); return MM_FATAL_ERROR_WRITING_FEATURES; } hMiraMonLayer->TopHeader.nElemCount++; if (nExternalRingsCount > 1) hMiraMonLayer->TopHeader.bIsMultipolygon = TRUE; } return MM_CONTINUE_WRITING_FEATURES; } // End of de MMCreateFeaturePolOrArc() // Creates a MiraMon DBF record when not associated with a geometric feature. static int MMCreateRecordDBF(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature) { int result; if (!hMiraMonLayer) return MM_FATAL_ERROR_WRITING_FEATURES; if (hMiraMonLayer->TopHeader.nElemCount == 0) { if (MMCreateMMDB(hMiraMonLayer, nullptr)) { MMDestroyMMDB(hMiraMonLayer); return MM_FATAL_ERROR_WRITING_FEATURES; } } result = MMAddDBFRecordToMMDB(hMiraMonLayer, hMMFeature); if (result == MM_FATAL_ERROR_WRITING_FEATURES || result == MM_STOP_WRITING_FEATURES) return result; // Everything OK. return MM_CONTINUE_WRITING_FEATURES; } // End of de MMCreateRecordDBF() // Creates a MiraMon point feature. static int MMCreateFeaturePoint(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature) { double *pZ = nullptr; struct MM_POINT_2D *pCoord; MM_POLYGON_RINGS_COUNT nIPart; MM_N_VERTICES_TYPE nIVertice, nCoord; struct MM_ZD *pZDescription = nullptr; MM_INTERNAL_FID nElemCount; int result; if (!hMiraMonLayer) return MM_FATAL_ERROR_WRITING_FEATURES; if (!hMMFeature) return MM_STOP_WRITING_FEATURES; if (hMiraMonLayer->TopHeader.bIs3d) pZ = hMMFeature->pZCoord; nElemCount = hMiraMonLayer->TopHeader.nElemCount; for (nIPart = 0, pCoord = hMMFeature->pCoord; nIPart < hMMFeature->nNRings; nIPart++, nElemCount++) { nCoord = hMMFeature->pNCoordRing[nIPart]; // Checking if its possible continue writing the file due // to version limitations. if (MMCheckVersionForFID(hMiraMonLayer, hMiraMonLayer->TopHeader.nElemCount + nCoord)) { CPLError(CE_Failure, CPLE_NotSupported, "Error in MMCheckVersionForFID() (5)"); return MM_STOP_WRITING_FEATURES; } if (hMiraMonLayer->TopHeader.bIs3d) { if (nElemCount == 0) { if (MMCheckVersionFor3DOffset(hMiraMonLayer, (nElemCount + 1), 0, 0)) return MM_STOP_WRITING_FEATURES; } else { pZDescription = hMiraMonLayer->MMPoint.pZSection.pZDescription; if (!pZDescription) { CPLError(CE_Failure, CPLE_ObjectNull, "Error: pZDescription should not be nullptr"); return MM_STOP_WRITING_FEATURES; } if (MMCheckVersionFor3DOffset( hMiraMonLayer, nElemCount + 1, 0, pZDescription[nElemCount - 1].nOffsetZ + sizeof(*pZ))) return MM_STOP_WRITING_FEATURES; } } // Doing real job // Memory issues if (hMiraMonLayer->TopHeader.bIs3d && pZ) { if (MMResizeZSectionDescrPointer( &hMiraMonLayer->MMPoint.pZSection.pZDescription, &hMiraMonLayer->MMPoint.pZSection.nMaxZDescription, nElemCount, MM_INCR_NUMBER_OF_POINTS, 0)) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMCreateFeaturePoint())"); return MM_FATAL_ERROR_WRITING_FEATURES; } pZDescription = hMiraMonLayer->MMPoint.pZSection.pZDescription; if (!pZDescription) { CPLError(CE_Failure, CPLE_ObjectNull, "Error: pZDescription should not be nullptr"); return MM_STOP_WRITING_FEATURES; } pZDescription[nElemCount].dfBBminz = *pZ; pZDescription[nElemCount].dfBBmaxz = *pZ; if (hMiraMonLayer->MMPoint.pZSection.ZHeader.dfBBminz > *pZ) hMiraMonLayer->MMPoint.pZSection.ZHeader.dfBBminz = *pZ; if (hMiraMonLayer->MMPoint.pZSection.ZHeader.dfBBmaxz < *pZ) hMiraMonLayer->MMPoint.pZSection.ZHeader.dfBBmaxz = *pZ; // Specification ask for a negative number. pZDescription[nElemCount].nZCount = -1; if (nElemCount == 0) pZDescription[nElemCount].nOffsetZ = 0; else pZDescription[nElemCount].nOffsetZ = pZDescription[nElemCount - 1].nOffsetZ + sizeof(*pZ); } // Flush settings hMiraMonLayer->MMPoint.FlushTL.pBlockWhereToSaveOrRead = (void *)hMiraMonLayer->MMPoint.pTL; if (hMiraMonLayer->TopHeader.bIs3d) hMiraMonLayer->MMPoint.pZSection.FlushZL.pBlockWhereToSaveOrRead = (void *)hMiraMonLayer->MMPoint.pZSection.pZL; // Dump point or points (MiraMon does not have multiple points) for (nIVertice = 0; nIVertice < nCoord; nIVertice++, pCoord++) { // Updating the bounding box of the layer MMUpdateBoundingBoxXY(&hMiraMonLayer->TopHeader.hBB, pCoord); // Adding the point at the memory block hMiraMonLayer->MMPoint.FlushTL.SizeOfBlockToBeSaved = sizeof(pCoord->dfX); hMiraMonLayer->MMPoint.FlushTL.pBlockToBeSaved = (void *)&pCoord->dfX; if (MMAppendBlockToBuffer(&hMiraMonLayer->MMPoint.FlushTL)) return MM_FATAL_ERROR_WRITING_FEATURES; hMiraMonLayer->MMPoint.FlushTL.pBlockToBeSaved = (void *)&pCoord->dfY; if (MMAppendBlockToBuffer(&hMiraMonLayer->MMPoint.FlushTL)) return MM_FATAL_ERROR_WRITING_FEATURES; // Adding the 3D part, if exists, at the memory block if (hMiraMonLayer->TopHeader.bIs3d && pZ) { hMiraMonLayer->MMPoint.pZSection.FlushZL.SizeOfBlockToBeSaved = sizeof(*pZ); hMiraMonLayer->MMPoint.pZSection.FlushZL.pBlockToBeSaved = (void *)pZ; if (MMAppendBlockToBuffer( &hMiraMonLayer->MMPoint.pZSection.FlushZL)) return MM_FATAL_ERROR_WRITING_FEATURES; if (!pZDescription) { CPLError(CE_Failure, CPLE_ObjectNull, "Error: pZDescription should not be nullptr"); return MM_STOP_WRITING_FEATURES; } if (pZDescription[nElemCount].dfBBminz > *pZ) pZDescription[nElemCount].dfBBminz = *pZ; if (pZDescription[nElemCount].dfBBmaxz < *pZ) pZDescription[nElemCount].dfBBmaxz = *pZ; if (hMiraMonLayer->MMPoint.pZSection.ZHeader.dfBBminz > *pZ) hMiraMonLayer->MMPoint.pZSection.ZHeader.dfBBminz = *pZ; if (hMiraMonLayer->MMPoint.pZSection.ZHeader.dfBBmaxz < *pZ) hMiraMonLayer->MMPoint.pZSection.ZHeader.dfBBmaxz = *pZ; pZ++; } } if (hMiraMonLayer->TopHeader.nElemCount == 0) { if (MMCreateMMDB(hMiraMonLayer, hMMFeature->pCoord)) return MM_FATAL_ERROR_WRITING_FEATURES; } result = MMAddPointRecordToMMDB(hMiraMonLayer, hMMFeature, nElemCount); if (result == MM_FATAL_ERROR_WRITING_FEATURES || result == MM_STOP_WRITING_FEATURES) return result; } // Updating nElemCount at the header of the layer hMiraMonLayer->TopHeader.nElemCount = nElemCount; // Everything OK. return MM_CONTINUE_WRITING_FEATURES; } // End of de MMCreateFeaturePoint() // Checks whether a given Feature ID (FID) exceeds the maximum allowed // index for 2 GB vectors in a specific MiraMon layer. int MMCheckVersionForFID(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_INTERNAL_FID FID) { if (!hMiraMonLayer) return 1; if (hMiraMonLayer->LayerVersion != MM_32BITS_VERSION) return 0; if (FID >= MAXIMUM_OBJECT_INDEX_IN_2GB_VECTORS) return 1; return 0; } // Checks whether a given offset exceeds the maximum allowed // index for 2 GB vectors in a specific MiraMon layer. int MMCheckVersionOffset(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_FILE_OFFSET OffsetToCheck) { if (!hMiraMonLayer) return 1; // Checking if the final version is 1.1 or 2.0 if (hMiraMonLayer->LayerVersion != MM_32BITS_VERSION) return 0; // User decided that if necessary, output version can be 2.0 if (OffsetToCheck < MAXIMUM_OFFSET_IN_2GB_VECTORS) return 0; return 1; } // Checks whether a given offset in 3D section exceeds the maximum allowed // index for 2 GB vectors in a specific MiraMon layer. int MMCheckVersionFor3DOffset(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_INTERNAL_FID nElemCount, MM_FILE_OFFSET nOffsetAL, MM_FILE_OFFSET nZLOffset) { MM_FILE_OFFSET LastOffset; if (!hMiraMonLayer) return 1; // Checking if the final version is 1.1 or 2.0 if (hMiraMonLayer->LayerVersion != MM_32BITS_VERSION) return 0; // User decided that if necessary, output version can be 2.0 if (hMiraMonLayer->bIsPoint) LastOffset = MM_HEADER_SIZE_32_BITS + nElemCount * MM_SIZE_OF_TL; else // Arc case { LastOffset = MM_HEADER_SIZE_32_BITS + nElemCount * MM_SIZE_OF_AH_32BITS + +nOffsetAL; } LastOffset += MM_SIZE_OF_ZH; LastOffset += nElemCount * MM_SIZE_OF_ZD_32_BITS; LastOffset += nZLOffset; if (LastOffset < MAXIMUM_OFFSET_IN_2GB_VECTORS) return 0; return 1; } // Adds a feature in a MiraMon layer. int MMAddFeature(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMiraMonFeature) { int re; MM_INTERNAL_FID previousFID = 0; if (!hMiraMonLayer) return MM_FATAL_ERROR_WRITING_FEATURES; if (!hMiraMonLayer->bIsBeenInit) { if (MMInitLayerByType(hMiraMonLayer)) { CPLDebugOnly("MiraMon", "Error in MMInitLayerByType()"); return MM_FATAL_ERROR_WRITING_FEATURES; } hMiraMonLayer->bIsBeenInit = 1; } if (hMiraMonFeature) previousFID = hMiraMonLayer->TopHeader.nElemCount; if (hMiraMonLayer->bIsPoint) { re = MMCreateFeaturePoint(hMiraMonLayer, hMiraMonFeature); if (hMiraMonFeature) { hMiraMonFeature->nReadFeatures = hMiraMonLayer->TopHeader.nElemCount - previousFID; } return re; } if (hMiraMonLayer->bIsArc || hMiraMonLayer->bIsPolygon) { re = MMCreateFeaturePolOrArc(hMiraMonLayer, hMiraMonFeature); if (hMiraMonFeature) { hMiraMonFeature->nReadFeatures = hMiraMonLayer->TopHeader.nElemCount - previousFID; } return re; } if (hMiraMonLayer->bIsDBF) { // Adding a record to DBF file re = MMCreateRecordDBF(hMiraMonLayer, hMiraMonFeature); if (hMiraMonFeature) { hMiraMonFeature->nReadFeatures = hMiraMonLayer->TopHeader.nElemCount - previousFID; } return re; } return MM_CONTINUE_WRITING_FEATURES; } /* -------------------------------------------------------------------- */ /* Tools used by MiraMon. */ /* -------------------------------------------------------------------- */ void MMInitBoundingBox(struct MMBoundingBox *dfBB) { if (!dfBB) return; dfBB->dfMinX = STATISTICAL_UNDEF_VALUE; dfBB->dfMaxX = -STATISTICAL_UNDEF_VALUE; dfBB->dfMinY = STATISTICAL_UNDEF_VALUE; dfBB->dfMaxY = -STATISTICAL_UNDEF_VALUE; } void MMUpdateBoundingBox(struct MMBoundingBox *dfBBToBeAct, struct MMBoundingBox *dfBBWithData) { if (!dfBBToBeAct) return; if (dfBBToBeAct->dfMinX > dfBBWithData->dfMinX) dfBBToBeAct->dfMinX = dfBBWithData->dfMinX; if (dfBBToBeAct->dfMinY > dfBBWithData->dfMinY) dfBBToBeAct->dfMinY = dfBBWithData->dfMinY; if (dfBBToBeAct->dfMaxX < dfBBWithData->dfMaxX) dfBBToBeAct->dfMaxX = dfBBWithData->dfMaxX; if (dfBBToBeAct->dfMaxY < dfBBWithData->dfMaxY) dfBBToBeAct->dfMaxY = dfBBWithData->dfMaxY; } void MMUpdateBoundingBoxXY(struct MMBoundingBox *dfBB, struct MM_POINT_2D *pCoord) { if (!pCoord) return; if (pCoord->dfX < dfBB->dfMinX) dfBB->dfMinX = pCoord->dfX; if (pCoord->dfY < dfBB->dfMinY) dfBB->dfMinY = pCoord->dfY; if (pCoord->dfX > dfBB->dfMaxX) dfBB->dfMaxX = pCoord->dfX; if (pCoord->dfY > dfBB->dfMaxY) dfBB->dfMaxY = pCoord->dfY; } /* -------------------------------------------------------------------- */ /* Resize structures for reuse */ /* -------------------------------------------------------------------- */ int MMResizeMiraMonFieldValue(struct MiraMonFieldValue **pFieldValue, MM_EXT_DBF_N_MULTIPLE_RECORDS *nMax, MM_EXT_DBF_N_MULTIPLE_RECORDS nNum, MM_EXT_DBF_N_MULTIPLE_RECORDS nIncr, MM_EXT_DBF_N_MULTIPLE_RECORDS nProposedMax) { MM_EXT_DBF_N_MULTIPLE_RECORDS nPrevMax; MM_EXT_DBF_N_MULTIPLE_RECORDS nNewMax; void *pTmp; if (nNum < *nMax) return 0; nPrevMax = *nMax; nNewMax = MAX(nNum + nIncr, nProposedMax); if (MMCheckSize_t(nNewMax, sizeof(**pFieldValue))) { return 1; } if ((pTmp = VSIRealloc(*pFieldValue, (size_t)nNewMax * sizeof(**pFieldValue))) == nullptr) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizeMiraMonFieldValue())"); return 1; } *nMax = nNewMax; *pFieldValue = pTmp; memset((*pFieldValue) + nPrevMax, 0, (size_t)(*nMax - nPrevMax) * sizeof(**pFieldValue)); return 0; } int MMResizeMiraMonPolygonArcs(struct MM_PAL_MEM **pFID, MM_POLYGON_ARCS_COUNT *nMax, MM_POLYGON_ARCS_COUNT nNum, MM_POLYGON_ARCS_COUNT nIncr, MM_POLYGON_ARCS_COUNT nProposedMax) { MM_POLYGON_ARCS_COUNT nPrevMax; MM_POLYGON_ARCS_COUNT nNewMax; void *pTmp; if (nNum < *nMax) return 0; nPrevMax = *nMax; nNewMax = MAX(nNum + nIncr, nProposedMax); if (MMCheckSize_t(nNewMax, sizeof(**pFID))) { return 1; } if (nNewMax == 0 && *pFID) return 0; if ((pTmp = VSIRealloc(*pFID, (size_t)nNewMax * sizeof(**pFID))) == nullptr) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizeMiraMonPolygonArcs())"); return 1; } *nMax = nNewMax; *pFID = pTmp; memset((*pFID) + nPrevMax, 0, (size_t)(*nMax - nPrevMax) * sizeof(**pFID)); return 0; } int MMResizeMiraMonRecord(struct MiraMonRecord **pMiraMonRecord, MM_EXT_DBF_N_MULTIPLE_RECORDS *nMax, MM_EXT_DBF_N_MULTIPLE_RECORDS nNum, MM_EXT_DBF_N_MULTIPLE_RECORDS nIncr, MM_EXT_DBF_N_MULTIPLE_RECORDS nProposedMax) { MM_EXT_DBF_N_MULTIPLE_RECORDS nPrevMax; MM_EXT_DBF_N_MULTIPLE_RECORDS nNewMax; void *pTmp; if (nNum < *nMax) return 0; nPrevMax = *nMax; nNewMax = MAX(nNum + nIncr, nProposedMax); if (MMCheckSize_t(nNewMax, sizeof(**pMiraMonRecord))) { return 1; } if (nNewMax == 0 && *pMiraMonRecord) return 0; if ((pTmp = VSIRealloc(*pMiraMonRecord, (size_t)nNewMax * sizeof(**pMiraMonRecord))) == nullptr) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizeMiraMonRecord())"); return 1; } *nMax = nNewMax; *pMiraMonRecord = pTmp; memset((*pMiraMonRecord) + nPrevMax, 0, (size_t)(*nMax - nPrevMax) * sizeof(**pMiraMonRecord)); return 0; } int MMResizeZSectionDescrPointer(struct MM_ZD **pZDescription, GUInt64 *nMax, GUInt64 nNum, GUInt64 nIncr, GUInt64 nProposedMax) { GUInt64 nNewMax, nPrevMax; void *pTmp; if (nNum < *nMax) return 0; nPrevMax = *nMax; nNewMax = MAX(nNum + nIncr, nProposedMax); if (MMCheckSize_t(nNewMax, sizeof(**pZDescription))) { return 1; } if (nNewMax == 0 && *pZDescription) return 0; if ((pTmp = VSIRealloc(*pZDescription, (size_t)nNewMax * sizeof(**pZDescription))) == nullptr) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizeZSectionDescrPointer())"); return 1; } *nMax = nNewMax; *pZDescription = pTmp; memset((*pZDescription) + nPrevMax, 0, (size_t)(*nMax - nPrevMax) * sizeof(**pZDescription)); return 0; } int MMResizeNodeHeaderPointer(struct MM_NH **pNodeHeader, GUInt64 *nMax, GUInt64 nNum, GUInt64 nIncr, GUInt64 nProposedMax) { GUInt64 nNewMax, nPrevMax; void *pTmp; if (nNum < *nMax) return 0; nPrevMax = *nMax; nNewMax = MAX(nNum + nIncr, nProposedMax); if (MMCheckSize_t(nNewMax, sizeof(**pNodeHeader))) { return 1; } if (nNewMax == 0 && *pNodeHeader) return 0; if ((pTmp = VSIRealloc(*pNodeHeader, (size_t)nNewMax * sizeof(**pNodeHeader))) == nullptr) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizeNodeHeaderPointer())"); return 1; } *nMax = nNewMax; *pNodeHeader = pTmp; memset((*pNodeHeader) + nPrevMax, 0, (size_t)(*nMax - nPrevMax) * sizeof(**pNodeHeader)); return 0; } int MMResizeArcHeaderPointer(struct MM_AH **pArcHeader, GUInt64 *nMax, GUInt64 nNum, GUInt64 nIncr, GUInt64 nProposedMax) { GUInt64 nNewMax, nPrevMax; void *pTmp; if (nNum < *nMax) return 0; nPrevMax = *nMax; nNewMax = MAX(nNum + nIncr, nProposedMax); if (MMCheckSize_t(nNewMax, sizeof(**pArcHeader))) { return 1; } if (nNewMax == 0 && *pArcHeader) return 0; if ((pTmp = VSIRealloc(*pArcHeader, (size_t)nNewMax * sizeof(**pArcHeader))) == nullptr) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizeArcHeaderPointer())"); return 1; } *nMax = nNewMax; *pArcHeader = pTmp; memset((*pArcHeader) + nPrevMax, 0, (size_t)(*nMax - nPrevMax) * sizeof(**pArcHeader)); return 0; } int MMResizePolHeaderPointer(struct MM_PH **pPolHeader, GUInt64 *nMax, GUInt64 nNum, GUInt64 nIncr, GUInt64 nProposedMax) { GUInt64 nNewMax, nPrevMax; void *pTmp; if (nNum < *nMax) return 0; nPrevMax = *nMax; nNewMax = MAX(nNum + nIncr, nProposedMax); if (MMCheckSize_t(nNewMax, sizeof(**pPolHeader))) { return 1; } if (nNewMax == 0 && *pPolHeader) return 0; if ((pTmp = VSIRealloc(*pPolHeader, (size_t)nNewMax * sizeof(**pPolHeader))) == nullptr) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizePolHeaderPointer())"); return 1; } *nMax = nNewMax; *pPolHeader = pTmp; memset((*pPolHeader) + nPrevMax, 0, (size_t)(*nMax - nPrevMax) * sizeof(**pPolHeader)); return 0; } int MMResize_MM_N_VERTICES_TYPE_Pointer(MM_N_VERTICES_TYPE **pVrt, MM_N_VERTICES_TYPE *nMax, MM_N_VERTICES_TYPE nNum, MM_N_VERTICES_TYPE nIncr, MM_N_VERTICES_TYPE nProposedMax) { MM_N_VERTICES_TYPE nNewMax, nPrevMax; void *pTmp; if (nNum < *nMax) return 0; nPrevMax = *nMax; nNewMax = MAX(nNum + nIncr, nProposedMax); if (MMCheckSize_t(nNewMax, sizeof(**pVrt))) { return 1; } if (nNewMax == 0 && *pVrt) return 0; if ((pTmp = VSIRealloc(*pVrt, (size_t)nNewMax * sizeof(**pVrt))) == nullptr) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResize_MM_N_VERTICES_TYPE_Pointer())"); return 1; } *nMax = nNewMax; *pVrt = pTmp; memset((*pVrt) + nPrevMax, 0, (size_t)(*nMax - nPrevMax) * sizeof(**pVrt)); return 0; } int MMResizeVFGPointer(char **pInt, MM_INTERNAL_FID *nMax, MM_INTERNAL_FID nNum, MM_INTERNAL_FID nIncr, MM_INTERNAL_FID nProposedMax) { MM_N_VERTICES_TYPE nNewMax, nPrevMax; void *pTmp; if (nNum < *nMax) return 0; nPrevMax = *nMax; nNewMax = MAX(nNum + nIncr, nProposedMax); if (MMCheckSize_t(nNewMax, sizeof(**pInt))) { return 1; } if (nNewMax == 0 && *pInt) return 0; if ((pTmp = VSIRealloc(*pInt, (size_t)nNewMax * sizeof(**pInt))) == nullptr) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizeVFGPointer())"); return 1; } *nMax = nNewMax; *pInt = pTmp; memset((*pInt) + nPrevMax, 0, (size_t)(*nMax - nPrevMax) * sizeof(**pInt)); return 0; } int MMResizeMM_POINT2DPointer(struct MM_POINT_2D **pPoint2D, MM_N_VERTICES_TYPE *nMax, MM_N_VERTICES_TYPE nNum, MM_N_VERTICES_TYPE nIncr, MM_N_VERTICES_TYPE nProposedMax) { MM_N_VERTICES_TYPE nNewMax, nPrevMax; void *pTmp; if (nNum < *nMax) return 0; nPrevMax = *nMax; nNewMax = MAX(nNum + nIncr, nProposedMax); if (MMCheckSize_t(nNewMax, sizeof(**pPoint2D))) { return 1; } if (nNewMax == 0 && *pPoint2D) return 0; if ((pTmp = VSIRealloc(*pPoint2D, (size_t)nNewMax * sizeof(**pPoint2D))) == nullptr) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizeMM_POINT2DPointer())"); return 1; } *nMax = nNewMax; *pPoint2D = pTmp; memset((*pPoint2D) + nPrevMax, 0, (size_t)(*nMax - nPrevMax) * sizeof(**pPoint2D)); return 0; } int MMResizeDoublePointer(MM_COORD_TYPE **pDouble, MM_N_VERTICES_TYPE *nMax, MM_N_VERTICES_TYPE nNum, MM_N_VERTICES_TYPE nIncr, MM_N_VERTICES_TYPE nProposedMax) { MM_N_VERTICES_TYPE nNewMax, nPrevMax; void *pTmp; if (nNum < *nMax) return 0; nPrevMax = *nMax; nNewMax = MAX(nNum + nIncr, nProposedMax); if (MMCheckSize_t(nNewMax, sizeof(**pDouble))) { return 1; } if (nNewMax == 0 && *pDouble) return 0; if ((pTmp = VSIRealloc(*pDouble, (size_t)nNewMax * sizeof(**pDouble))) == nullptr) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizeDoublePointer())"); return 1; } *nMax = nNewMax; *pDouble = pTmp; memset((*pDouble) + nPrevMax, 0, (size_t)(*nMax - nPrevMax) * sizeof(**pDouble)); return 0; } int MMResizeStringToOperateIfNeeded(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_EXT_DBF_N_FIELDS nNewSize) { if (!hMiraMonLayer) return 1; if (nNewSize >= hMiraMonLayer->nNumStringToOperate) { char *p; if (MMCheckSize_t(nNewSize, 1)) return 1; p = (char *)VSICalloc(1, (size_t)nNewSize); if (!p) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMResizeStringToOperateIfNeeded())"); return 1; } VSIFree(hMiraMonLayer->szStringToOperate); hMiraMonLayer->szStringToOperate = p; hMiraMonLayer->nNumStringToOperate = nNewSize; } return 0; } /* -------------------------------------------------------------------- */ /* Metadata Functions */ /* -------------------------------------------------------------------- */ #define LineReturn "\r\n" // Generates an identifier that REL 4 MiraMon metadata needs. static void MMGenerateFileIdentifierFromMetadataFileName(char *pMMFN, char *aFileIdentifier) { char aCharRand[8]; static const char aCharset[] = "0123456789ABCDEFGHIJKLMNOPQRSTUVWXYZabcdefghijklmnopqrstuvwxyz"; int i, len_charset; memset(aFileIdentifier, '\0', MM_MAX_LEN_LAYER_IDENTIFIER); aCharRand[0] = '_'; len_charset = (int)strlen(aCharset); for (i = 1; i < 7; i++) { #ifndef __COVERITY__ aCharRand[i] = aCharset[rand() % (len_charset - 1)]; #else aCharRand[i] = aCharset[i % (len_charset - 1)]; #endif } aCharRand[7] = '\0'; CPLStrlcpy(aFileIdentifier, pMMFN, MM_MAX_LEN_LAYER_IDENTIFIER - 7); strcat(aFileIdentifier, aCharRand); return; } // Converts a string from UTF-8 to ANSI to be written in a REL 4 file static void MMWrite_ANSI_MetadataKeyDescriptor( struct MiraMonVectorMetaData *hMMMD, VSILFILE *pF, const char *pszEng, const char *pszCat, const char *pszEsp, const char *pszCurrentEncoding) { if (!EQUAL(pszCurrentEncoding, CPL_ENC_ISO8859_1)) { char *pszString = nullptr; switch (hMMMD->nMMLanguage) { case MM_CAT_LANGUAGE: pszString = CPLRecode(pszCat, pszCurrentEncoding, CPL_ENC_ISO8859_1); break; case MM_SPA_LANGUAGE: pszString = CPLRecode(pszEsp, pszCurrentEncoding, CPL_ENC_ISO8859_1); break; default: case MM_ENG_LANGUAGE: pszString = CPLRecode(pszEng, pszCurrentEncoding, CPL_ENC_ISO8859_1); break; } if (pszString) { VSIFPrintfL(pF, "%s", KEY_descriptor); VSIFPrintfL(pF, "="); VSIFPrintfL(pF, "%s", pszString); VSIFPrintfL(pF, "%s", LineReturn); CPLFree(pszString); } } else { const char *pszString; switch (hMMMD->nMMLanguage) { case MM_CAT_LANGUAGE: pszString = pszCat; break; case MM_SPA_LANGUAGE: pszString = pszEsp; break; default: case MM_ENG_LANGUAGE: pszString = pszEng; break; } if (pszString) { VSIFPrintfL(pF, "%s", KEY_descriptor); VSIFPrintfL(pF, "="); VSIFPrintfL(pF, "%s", pszString); VSIFPrintfL(pF, "%s", LineReturn); } } } /* Writes a MiraMon REL 4 metadata file. Next sections are included: VERSION, METADADES, IDENTIFICATION, EXTENT, OVERVIEW, TAULA_PRINCIPAL and GEOMETRIA_I_TOPOLOGIA Please, consult the meaning of all them at: https://www.miramon.cat/help/eng/GeMPlus/ClausREL.htm This file must be written in ANSI encoding; therefore, some conversions are performed for strings that may originally be in UTF-8. */ static int MMWriteMetadataFile(struct MiraMonVectorMetaData *hMMMD) { char aMessage[MM_MESSAGE_LENGTH], aFileIdentifier[MM_MAX_LEN_LAYER_IDENTIFIER], aMMIDSRS[MM_MAX_ID_SNY]; char *pszChaiCP1252; MM_EXT_DBF_N_FIELDS nIField; VSILFILE *pF; time_t currentTime; char aTimeString[200]; if (!hMMMD->aLayerName) return 0; if (nullptr == (pF = VSIFOpenL(hMMMD->aLayerName, "wb"))) { CPLError(CE_Failure, CPLE_OpenFailed, "The file %s must exist.", hMMMD->aLayerName); return 1; } // Writing MiraMon version section VSIFPrintfL(pF, "[%s]" LineReturn, SECTION_VERSIO); VSIFPrintfL(pF, "%s=%u" LineReturn, KEY_Vers, (unsigned)MM_VERS); VSIFPrintfL(pF, "%s=%u" LineReturn, KEY_SubVers, (unsigned)MM_SUBVERS); VSIFPrintfL(pF, "%s=%u" LineReturn, KEY_VersMetaDades, (unsigned)MM_VERS_METADADES); VSIFPrintfL(pF, "%s=%u" LineReturn, KEY_SubVersMetaDades, (unsigned)MM_SUBVERS_METADADES); // Writing METADADES section VSIFPrintfL(pF, "\r\n[%s]" LineReturn, SECTION_METADADES); CPLStrlcpy(aMessage, hMMMD->aLayerName, sizeof(aMessage)); MMGenerateFileIdentifierFromMetadataFileName(aMessage, aFileIdentifier); pszChaiCP1252 = CPLRecode(aFileIdentifier, CPL_ENC_UTF8, "CP1252"); VSIFPrintfL(pF, "%s=%s" LineReturn, KEY_FileIdentifier, pszChaiCP1252 ? pszChaiCP1252 : aFileIdentifier); VSIFPrintfL(pF, "%s=%s" LineReturn, KEY_language, KEY_Value_eng); VSIFPrintfL(pF, "%s=%s" LineReturn, KEY_MDIdiom, KEY_Value_eng); VSIFPrintfL(pF, "%s=%s" LineReturn, KEY_characterSet, KEY_Value_characterSet); // Writing IDENTIFICATION section VSIFPrintfL(pF, LineReturn "[%s]" LineReturn, SECTION_IDENTIFICATION); VSIFPrintfL(pF, "%s=%s" LineReturn, KEY_code, pszChaiCP1252 ? pszChaiCP1252 : aFileIdentifier); VSIFPrintfL(pF, "%s=" LineReturn, KEY_codeSpace); CPLFree(pszChaiCP1252); // Not needed if (hMMMD->szLayerTitle && !MMIsEmptyString(hMMMD->szLayerTitle)) { pszChaiCP1252 = CPLRecode(hMMMD->szLayerTitle, CPL_ENC_UTF8, "CP1252"); if (hMMMD->ePlainLT == MM_LayerType_Point) VSIFPrintfL(pF, "%s=%s (pnt)" LineReturn, KEY_DatasetTitle, pszChaiCP1252 ? pszChaiCP1252 : hMMMD->szLayerTitle); if (hMMMD->ePlainLT == MM_LayerType_Arc) VSIFPrintfL(pF, "%s=%s (arc)" LineReturn, KEY_DatasetTitle, pszChaiCP1252 ? pszChaiCP1252 : hMMMD->szLayerTitle); if (hMMMD->ePlainLT == MM_LayerType_Pol) VSIFPrintfL(pF, "%s=%s (pol)" LineReturn, KEY_DatasetTitle, pszChaiCP1252 ? pszChaiCP1252 : hMMMD->szLayerTitle); CPLFree(pszChaiCP1252); } VSIFPrintfL(pF, "%s=%s" LineReturn, KEY_language, KEY_Value_eng); if (hMMMD->ePlainLT != MM_LayerType_Node && hMMMD->ePlainLT != MM_LayerType_Pol) { // SPATIAL_REFERENCE_SYSTEM:HORIZONTAL VSIFPrintfL(pF, LineReturn "[%s:%s]" LineReturn, SECTION_SPATIAL_REFERENCE_SYSTEM, SECTION_HORIZONTAL); if (!ReturnMMIDSRSFromEPSGCodeSRS(hMMMD->pSRS, aMMIDSRS) && !MMIsEmptyString(aMMIDSRS)) VSIFPrintfL(pF, "%s=%s" LineReturn, KEY_HorizontalSystemIdentifier, aMMIDSRS); else { CPLError(CE_Warning, CPLE_NotSupported, "The MiraMon driver cannot assign any HRS."); // Horizontal Reference System VSIFPrintfL(pF, "%s=plane" LineReturn, KEY_HorizontalSystemIdentifier); VSIFPrintfL(pF, "%s=local" LineReturn, KEY_HorizontalSystemDefinition); if (hMMMD->pXUnit) VSIFPrintfL(pF, "%s=%s" LineReturn, KEY_unitats, hMMMD->pXUnit); if (hMMMD->pYUnit) { if (!hMMMD->pXUnit || strcasecmp(hMMMD->pXUnit, hMMMD->pYUnit)) VSIFPrintfL(pF, "%s=%s" LineReturn, KEY_unitatsY, hMMMD->pYUnit); } } // SPATIAL_REFERENCE_SYSTEM:VERTICAL // Llegim les unitats del Sist. ref. vertical if (hMMMD->pZUnit) { VSIFPrintfL(pF, LineReturn "[%s:%s]" LineReturn, SECTION_SPATIAL_REFERENCE_SYSTEM, SECTION_VERTICAL); VSIFPrintfL(pF, "%s=%s" LineReturn, KEY_unitats, hMMMD->pZUnit); } } if (hMMMD->ePlainLT == MM_LayerType_Pol && hMMMD->aArcFile) { // Writing OVERVIEW:ASPECTES_TECNICS in polygon metadata file. // ArcSource=fitx_pol.arc pszChaiCP1252 = CPLRecode(hMMMD->aArcFile, CPL_ENC_UTF8, "CP1252"); VSIFPrintfL(pF, LineReturn "[%s]" LineReturn, SECTION_OVVW_ASPECTES_TECNICS); VSIFPrintfL(pF, "%s=\"%s\"" LineReturn, KEY_ArcSource, pszChaiCP1252); CPLFree(pszChaiCP1252); } else if (hMMMD->ePlainLT == MM_LayerType_Arc && hMMMD->aArcFile) { pszChaiCP1252 = CPLRecode(hMMMD->aArcFile, CPL_ENC_UTF8, "CP1252"); // Writing OVERVIEW:ASPECTES_TECNICS in arc metadata file. // Ciclat1=fitx_arc.pol VSIFPrintfL(pF, LineReturn "[%s]" LineReturn, SECTION_OVVW_ASPECTES_TECNICS); VSIFPrintfL(pF, "Ciclat1=\"%s\"" LineReturn, pszChaiCP1252); CPLFree(pszChaiCP1252); } // Writing EXTENT section VSIFPrintfL(pF, LineReturn "[%s]" LineReturn, SECTION_EXTENT); VSIFPrintfL(pF, "%s=0" LineReturn, KEY_toler_env); if (hMMMD->hBB.dfMinX != MM_UNDEFINED_STATISTICAL_VALUE && hMMMD->hBB.dfMaxX != -MM_UNDEFINED_STATISTICAL_VALUE && hMMMD->hBB.dfMinY != MM_UNDEFINED_STATISTICAL_VALUE && hMMMD->hBB.dfMaxY != -MM_UNDEFINED_STATISTICAL_VALUE) { VSIFPrintfL(pF, "%s=%lf" LineReturn, KEY_MinX, hMMMD->hBB.dfMinX); VSIFPrintfL(pF, "%s=%lf" LineReturn, KEY_MaxX, hMMMD->hBB.dfMaxX); VSIFPrintfL(pF, "%s=%lf" LineReturn, KEY_MinY, hMMMD->hBB.dfMinY); VSIFPrintfL(pF, "%s=%lf" LineReturn, KEY_MaxY, hMMMD->hBB.dfMaxY); } // Writing OVERVIEW section VSIFPrintfL(pF, LineReturn "[%s]" LineReturn, SECTION_OVERVIEW); currentTime = time(nullptr); struct tm ltime; VSILocalTime(¤tTime, <ime); snprintf(aTimeString, sizeof(aTimeString), "%04d%02d%02d %02d%02d%02d%02d", ltime.tm_year + 1900, ltime.tm_mon + 1, ltime.tm_mday, ltime.tm_hour, ltime.tm_min, ltime.tm_sec, 0); VSIFPrintfL(pF, "%s=%s" LineReturn, KEY_CreationDate, aTimeString); VSIFPrintfL(pF, LineReturn); // Writing TAULA_PRINCIPAL section VSIFPrintfL(pF, "[%s]" LineReturn, SECTION_TAULA_PRINCIPAL); VSIFPrintfL(pF, "IdGrafic=%s" LineReturn, szMMNomCampIdGraficDefecte); VSIFPrintfL(pF, "TipusRelacio=RELACIO_1_1_DICC" LineReturn); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampIdGraficDefecte); VSIFPrintfL(pF, "visible=0" LineReturn); VSIFPrintfL(pF, "simbolitzable=0" LineReturn); MMWrite_ANSI_MetadataKeyDescriptor( hMMMD, pF, szInternalGraphicIdentifierEng, szInternalGraphicIdentifierCat, szInternalGraphicIdentifierSpa, CPL_ENC_ISO8859_1); if (hMMMD->ePlainLT == MM_LayerType_Arc) { VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampNVertexsDefecte); VSIFPrintfL(pF, "visible=0" LineReturn); VSIFPrintfL(pF, "simbolitzable=0" LineReturn); MMWrite_ANSI_MetadataKeyDescriptor( hMMMD, pF, szNumberOfVerticesEng, szNumberOfVerticesCat, szNumberOfVerticesSpa, CPL_ENC_ISO8859_1); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampLongitudArcDefecte); MMWrite_ANSI_MetadataKeyDescriptor(hMMMD, pF, szLengthOfAarcEng, szLengthOfAarcCat, szLengthOfAarcSpa, CPL_ENC_ISO8859_1); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampNodeIniDefecte); VSIFPrintfL(pF, "visible=0" LineReturn); VSIFPrintfL(pF, "simbolitzable=0" LineReturn); MMWrite_ANSI_MetadataKeyDescriptor(hMMMD, pF, szInitialNodeEng, szInitialNodeCat, szInitialNodeSpa, CPL_ENC_ISO8859_1); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampNodeFiDefecte); VSIFPrintfL(pF, "visible=0" LineReturn); VSIFPrintfL(pF, "simbolitzable=0" LineReturn); MMWrite_ANSI_MetadataKeyDescriptor(hMMMD, pF, szFinalNodeEng, szFinalNodeCat, szFinalNodeSpa, CPL_ENC_ISO8859_1); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[GEOMETRIA_I_TOPOLOGIA]" LineReturn); VSIFPrintfL(pF, "NomCampNVertexs=%s" LineReturn, szMMNomCampNVertexsDefecte); VSIFPrintfL(pF, "NomCampLongitudArc=%s" LineReturn, szMMNomCampLongitudArcDefecte); VSIFPrintfL(pF, "NomCampNodeIni=%s" LineReturn, szMMNomCampNodeIniDefecte); VSIFPrintfL(pF, "NomCampNodeFi=%s" LineReturn, szMMNomCampNodeFiDefecte); } else if (hMMMD->ePlainLT == MM_LayerType_Node) { VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampArcsANodeDefecte); VSIFPrintfL(pF, "simbolitzable=0" LineReturn); MMWrite_ANSI_MetadataKeyDescriptor( hMMMD, pF, szNumberOfArcsToNodeEng, szNumberOfArcsToNodeCat, szNumberOfArcsToNodeSpa, CPL_ENC_ISO8859_1); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampTipusNodeDefecte); VSIFPrintfL(pF, "simbolitzable=0" LineReturn); MMWrite_ANSI_MetadataKeyDescriptor(hMMMD, pF, szNodeTypeEng, szNodeTypeCat, szNodeTypeSpa, CPL_ENC_ISO8859_1); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[GEOMETRIA_I_TOPOLOGIA]" LineReturn); VSIFPrintfL(pF, "NomCampArcsANode=%s" LineReturn, szMMNomCampArcsANodeDefecte); VSIFPrintfL(pF, "NomCampTipusNode=%s" LineReturn, szMMNomCampTipusNodeDefecte); } else if (hMMMD->ePlainLT == MM_LayerType_Pol) { VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampNVertexsDefecte); VSIFPrintfL(pF, "visible=0" LineReturn); VSIFPrintfL(pF, "simbolitzable=0" LineReturn); MMWrite_ANSI_MetadataKeyDescriptor( hMMMD, pF, szNumberOfVerticesEng, szNumberOfVerticesCat, szNumberOfVerticesSpa, CPL_ENC_ISO8859_1); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampPerimetreDefecte); MMWrite_ANSI_MetadataKeyDescriptor( hMMMD, pF, szPerimeterOfThePolygonEng, szPerimeterOfThePolygonCat, szPerimeterOfThePolygonSpa, CPL_ENC_ISO8859_1); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampAreaDefecte); MMWrite_ANSI_MetadataKeyDescriptor( hMMMD, pF, szAreaOfThePolygonEng, szAreaOfThePolygonCat, szAreaOfThePolygonSpa, CPL_ENC_ISO8859_1); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampNArcsDefecte); VSIFPrintfL(pF, "visible=0" LineReturn); VSIFPrintfL(pF, "simbolitzable=0" LineReturn); MMWrite_ANSI_MetadataKeyDescriptor(hMMMD, pF, szNumberOfArcsEng, szNumberOfArcsCat, szNumberOfArcsSpa, CPL_ENC_ISO8859_1); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, szMMNomCampNPoligonsDefecte); VSIFPrintfL(pF, "visible=0" LineReturn); VSIFPrintfL(pF, "simbolitzable=0" LineReturn); MMWrite_ANSI_MetadataKeyDescriptor( hMMMD, pF, szNumberOfElementaryPolygonsEng, szNumberOfElementaryPolygonsCat, szNumberOfElementaryPolygonsSpa, CPL_ENC_ISO8859_1); VSIFPrintfL(pF, LineReturn); VSIFPrintfL(pF, "[GEOMETRIA_I_TOPOLOGIA]" LineReturn); VSIFPrintfL(pF, "NomCampNVertexs=%s" LineReturn, szMMNomCampNVertexsDefecte); VSIFPrintfL(pF, "NomCampPerimetre=%s" LineReturn, szMMNomCampPerimetreDefecte); VSIFPrintfL(pF, "NomCampArea=%s" LineReturn, szMMNomCampAreaDefecte); VSIFPrintfL(pF, "NomCampNArcs=%s" LineReturn, szMMNomCampNArcsDefecte); VSIFPrintfL(pF, "NomCampNPoligons=%s" LineReturn, szMMNomCampNPoligonsDefecte); } if (hMMMD->pLayerDB && hMMMD->pLayerDB->nNFields > 0) { // For each field of the databes for (nIField = 0; nIField < hMMMD->pLayerDB->nNFields; nIField++) { VSIFPrintfL(pF, LineReturn "[%s:%s]" LineReturn, SECTION_TAULA_PRINCIPAL, hMMMD->pLayerDB->pFields[nIField].pszFieldName); if (!MMIsEmptyString( hMMMD->pLayerDB->pFields[nIField].pszFieldDescription) && !MMIsEmptyString( hMMMD->pLayerDB->pFields[nIField].pszFieldName)) { MMWrite_ANSI_MetadataKeyDescriptor( hMMMD, pF, hMMMD->pLayerDB->pFields[nIField].pszFieldDescription, hMMMD->pLayerDB->pFields[nIField].pszFieldDescription, hMMMD->pLayerDB->pFields[nIField].pszFieldDescription, CPL_ENC_UTF8); } // Exception in a particular case: "altura" is a catalan word that means // "height". Its unit by default will be "m" instead of "unknown". // The same goes for "z", which easily means height. if (EQUAL("altura", hMMMD->pLayerDB->pFields[nIField].pszFieldName) || EQUAL("z", hMMMD->pLayerDB->pFields[nIField].pszFieldName)) { VSIFPrintfL(pF, "unitats=m" LineReturn); } else { // By default units of field values will not be shown. VSIFPrintfL(pF, "MostrarUnitats=0" LineReturn); } } } VSIFCloseL(pF); return 0; } // Writes metadata files for MiraMon vector layers static int MMWriteVectorMetadataFile(struct MiraMonVectLayerInfo *hMiraMonLayer, int layerPlainType, int layerMainPlainType) { struct MiraMonVectorMetaData hMMMD; if (!hMiraMonLayer) return 1; // MiraMon writes a REL file of each .pnt, .arc, .nod or .pol memset(&hMMMD, 0, sizeof(hMMMD)); hMMMD.ePlainLT = layerPlainType; hMMMD.pSRS = hMiraMonLayer->pSRS; hMMMD.pZUnit = hMiraMonLayer->pZUnit; hMMMD.nMMLanguage = hMiraMonLayer->nMMLanguage; hMMMD.szLayerTitle = hMiraMonLayer->szLayerTitle; if (layerPlainType == MM_LayerType_Point) { hMMMD.aLayerName = hMiraMonLayer->MMPoint.pszREL_LayerName; if (MMIsEmptyString(hMMMD.aLayerName)) return 0; // If no file, no error. Just continue. memcpy(&hMMMD.hBB, &hMiraMonLayer->TopHeader.hBB, sizeof(hMMMD.hBB)); hMMMD.pLayerDB = hMiraMonLayer->pLayerDB; return MMWriteMetadataFile(&hMMMD); } else if (layerPlainType == MM_LayerType_Arc) { int nResult; // Arcs and not polygons if (layerMainPlainType == MM_LayerType_Arc) { hMMMD.aLayerName = hMiraMonLayer->MMArc.pszREL_LayerName; if (MMIsEmptyString(hMMMD.aLayerName)) return 0; // If no file, no error. Just continue. memcpy(&hMMMD.hBB, &hMiraMonLayer->TopHeader.hBB, sizeof(hMMMD.hBB)); hMMMD.pLayerDB = hMiraMonLayer->pLayerDB; } // Arcs and polygons else { // Arc from polygon hMMMD.aLayerName = hMiraMonLayer->MMPolygon.MMArc.pszREL_LayerName; if (MMIsEmptyString(hMMMD.aLayerName)) return 0; // If no file, no error. Just continue. memcpy(&hMMMD.hBB, &hMiraMonLayer->MMPolygon.TopArcHeader.hBB, sizeof(hMMMD.hBB)); hMMMD.pLayerDB = nullptr; hMMMD.aArcFile = CPLStrdup( CPLGetFilename(hMiraMonLayer->MMPolygon.pszLayerName)); } nResult = MMWriteMetadataFile(&hMMMD); VSIFree(hMMMD.aArcFile); return nResult; } else if (layerPlainType == MM_LayerType_Pol) { int nResult; hMMMD.aLayerName = hMiraMonLayer->MMPolygon.pszREL_LayerName; if (MMIsEmptyString(hMMMD.aLayerName)) return 0; // If no file, no error. Just continue. memcpy(&hMMMD.hBB, &hMiraMonLayer->TopHeader.hBB, sizeof(hMMMD.hBB)); hMMMD.pLayerDB = hMiraMonLayer->pLayerDB; hMMMD.aArcFile = CPLStrdup( CPLGetFilename(hMiraMonLayer->MMPolygon.MMArc.pszLayerName)); nResult = MMWriteMetadataFile(&hMMMD); VSIFree(hMMMD.aArcFile); return nResult; } else if (layerPlainType == MM_LayerType_Node) { // Node from arc if (layerMainPlainType == MM_LayerType_Arc) { hMMMD.aLayerName = hMiraMonLayer->MMArc.MMNode.pszREL_LayerName; if (MMIsEmptyString(hMMMD.aLayerName)) return 0; // If no file, no error. Just continue. memcpy(&hMMMD.hBB, &hMiraMonLayer->MMArc.TopNodeHeader.hBB, sizeof(hMMMD.hBB)); } else // Node from polygon { hMMMD.aLayerName = hMiraMonLayer->MMPolygon.MMArc.MMNode.pszREL_LayerName; if (MMIsEmptyString(hMMMD.aLayerName)) return 0; // If no file, no error. Just continue. memcpy(&hMMMD.hBB, &hMiraMonLayer->MMPolygon.MMArc.TopNodeHeader.hBB, sizeof(hMMMD.hBB)); } hMMMD.pLayerDB = nullptr; return MMWriteMetadataFile(&hMMMD); } return 0; } int MMWriteVectorMetadata(struct MiraMonVectLayerInfo *hMiraMonLayer) { if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPoint) return MMWriteVectorMetadataFile(hMiraMonLayer, MM_LayerType_Point, MM_LayerType_Point); if (hMiraMonLayer->bIsArc && !hMiraMonLayer->bIsPolygon) { if (MMWriteVectorMetadataFile(hMiraMonLayer, MM_LayerType_Node, MM_LayerType_Arc)) return 1; return MMWriteVectorMetadataFile(hMiraMonLayer, MM_LayerType_Arc, MM_LayerType_Arc); } if (hMiraMonLayer->bIsPolygon) { if (MMWriteVectorMetadataFile(hMiraMonLayer, MM_LayerType_Node, MM_LayerType_Pol)) return 1; if (MMWriteVectorMetadataFile(hMiraMonLayer, MM_LayerType_Arc, MM_LayerType_Pol)) return 1; return MMWriteVectorMetadataFile(hMiraMonLayer, MM_LayerType_Pol, MM_LayerType_Pol); } if (hMiraMonLayer->bIsDBF) { return MMWriteVectorMetadataFile(hMiraMonLayer, MM_LayerType_Unknown, MM_LayerType_Unknown); } return 0; } /* -------------------------------------------------------------------- */ /* MiraMon database functions */ /* -------------------------------------------------------------------- */ // Initializes a MiraMon database associated with a vector layer: // Sets the usual fields that MiraMon needs and after them, adds // all fields of the input layer static int MMInitMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MMAdmDatabase *pMMAdmDB) { if (!hMiraMonLayer || !pMMAdmDB) return 1; if (MMIsEmptyString(pMMAdmDB->pszExtDBFLayerName)) return 0; // No file, no error. Just continue strcpy(pMMAdmDB->pMMBDXP->ReadingMode, "wb+"); if (FALSE == MM_CreateAndOpenDBFFile(pMMAdmDB->pMMBDXP, pMMAdmDB->pszExtDBFLayerName)) { CPLError(CE_Failure, CPLE_OpenFailed, "Error pMMAdmDB: Cannot create or open file %s.", pMMAdmDB->pszExtDBFLayerName); return 1; } VSIFSeekL(pMMAdmDB->pMMBDXP->pfDataBase, pMMAdmDB->pMMBDXP->FirstRecordOffset, SEEK_SET); if (MMInitFlush(&pMMAdmDB->FlushRecList, pMMAdmDB->pMMBDXP->pfDataBase, MM_1MB, &pMMAdmDB->pRecList, pMMAdmDB->pMMBDXP->FirstRecordOffset, 0)) return 1; pMMAdmDB->nNumRecordOnCourse = (GUInt64)pMMAdmDB->pMMBDXP->BytesPerRecord + 1; if (MMCheckSize_t(pMMAdmDB->nNumRecordOnCourse, 1)) return 1; pMMAdmDB->szRecordOnCourse = VSICalloc(1, (size_t)pMMAdmDB->nNumRecordOnCourse); if (!pMMAdmDB->szRecordOnCourse) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMInitMMDB())"); return 1; } return 0; } // Creates a MiraMon database associated with a vector layer. // It determines the number of fields and initializes the database header // accordingly. Depending on the layer type (point, arc, polygon, or generic), // it defines the fields and initializes the corresponding MiraMon database // structures. int MMCreateMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MM_POINT_2D *pFirstCoord) { struct MM_DATA_BASE_XP *pBD_XP = nullptr, *pBD_XP_Aux = nullptr; struct MM_FIELD MMField; size_t nIFieldLayer; MM_EXT_DBF_N_FIELDS nIField = 0; MM_EXT_DBF_N_FIELDS nNFields; if (!hMiraMonLayer) return 1; // If the SRS is unknown, we attempt to deduce the appropriate number // of decimals to be used in the reserved fields as LONG_ARC, PERIMETRE, // or AREA using the coordinate values. It's not 100% reliable, but it's a // good approximation. if (hMiraMonLayer->nSRSType == MM_SRS_LAYER_IS_UNKNOWN_TYPE && pFirstCoord) { if (pFirstCoord->dfX < -360 || pFirstCoord->dfX > 360) hMiraMonLayer->nSRSType = MM_SRS_LAYER_IS_PROJECTED_TYPE; else hMiraMonLayer->nSRSType = MM_SRS_LAYER_IS_GEOGRAPHIC_TYPE; } if (hMiraMonLayer->bIsPoint) { if (hMiraMonLayer->pLayerDB) nNFields = MM_PRIVATE_POINT_DB_FIELDS + hMiraMonLayer->pLayerDB->nNFields; else nNFields = MM_PRIVATE_POINT_DB_FIELDS; // Before allocating new memory, there might be some previously allocated but unused memory. // Let's free that memory first. if (hMiraMonLayer->MMPoint.MMAdmDB.pMMBDXP) MM_ReleaseDBFHeader(&hMiraMonLayer->MMPoint.MMAdmDB.pMMBDXP); pBD_XP = hMiraMonLayer->MMPoint.MMAdmDB.pMMBDXP = MM_CreateDBFHeader(nNFields, hMiraMonLayer->nCharSet); if (!pBD_XP) return 1; if (0 == (nIField = (MM_EXT_DBF_N_FIELDS)MM_DefineFirstPointFieldsDB_XP( pBD_XP))) return 1; } else if (hMiraMonLayer->bIsArc && !hMiraMonLayer->bIsPolygon) { if (hMiraMonLayer->pLayerDB) nNFields = MM_PRIVATE_ARC_DB_FIELDS + hMiraMonLayer->pLayerDB->nNFields; else nNFields = MM_PRIVATE_ARC_DB_FIELDS; // Before allocating new memory, there might be some previously allocated but unused memory. // Let's free that memory first. if (hMiraMonLayer->MMArc.MMAdmDB.pMMBDXP) MM_ReleaseDBFHeader(&hMiraMonLayer->MMArc.MMAdmDB.pMMBDXP); pBD_XP = hMiraMonLayer->MMArc.MMAdmDB.pMMBDXP = MM_CreateDBFHeader(nNFields, hMiraMonLayer->nCharSet); if (!pBD_XP) return 1; if (0 == (nIField = (MM_EXT_DBF_N_FIELDS)MM_DefineFirstArcFieldsDB_XP( pBD_XP, hMiraMonLayer->nSRSType == MM_SRS_LAYER_IS_PROJECTED_TYPE ? 3 : 9))) return 1; // Before allocating new memory, there might be some previously allocated but unused memory. // Let's free that memory first. if (hMiraMonLayer->MMArc.MMNode.MMAdmDB.pMMBDXP) MM_ReleaseDBFHeader(&hMiraMonLayer->MMArc.MMNode.MMAdmDB.pMMBDXP); pBD_XP_Aux = hMiraMonLayer->MMArc.MMNode.MMAdmDB.pMMBDXP = MM_CreateDBFHeader(3, hMiraMonLayer->nCharSet); if (!pBD_XP_Aux) return 1; if (0 == MM_DefineFirstNodeFieldsDB_XP(pBD_XP_Aux)) return 1; } else if (hMiraMonLayer->bIsPolygon) { if (hMiraMonLayer->pLayerDB) nNFields = MM_PRIVATE_POLYGON_DB_FIELDS + hMiraMonLayer->pLayerDB->nNFields; else nNFields = MM_PRIVATE_POLYGON_DB_FIELDS; // Before allocating new memory, there might be some previously allocated but unused memory. // Let's free that memory first. if (hMiraMonLayer->MMPolygon.MMAdmDB.pMMBDXP) MM_ReleaseDBFHeader(&hMiraMonLayer->MMPolygon.MMAdmDB.pMMBDXP); pBD_XP = hMiraMonLayer->MMPolygon.MMAdmDB.pMMBDXP = MM_CreateDBFHeader(nNFields, hMiraMonLayer->nCharSet); if (!pBD_XP) return 1; if (0 == (nIField = (MM_EXT_DBF_N_FIELDS)MM_DefineFirstPolygonFieldsDB_XP( pBD_XP, hMiraMonLayer->nSRSType == MM_SRS_LAYER_IS_PROJECTED_TYPE ? 3 : 9, hMiraMonLayer->nSRSType == MM_SRS_LAYER_IS_PROJECTED_TYPE ? 3 : 12))) return 1; // Before allocating new memory, there might be some previously allocated but unused memory. // Let's free that memory first. if (hMiraMonLayer->MMPolygon.MMArc.MMAdmDB.pMMBDXP) MM_ReleaseDBFHeader( &hMiraMonLayer->MMPolygon.MMArc.MMAdmDB.pMMBDXP); pBD_XP_Aux = hMiraMonLayer->MMPolygon.MMArc.MMAdmDB.pMMBDXP = MM_CreateDBFHeader(5, hMiraMonLayer->nCharSet); if (!pBD_XP_Aux) return 1; if (0 == MM_DefineFirstArcFieldsDB_XP( pBD_XP_Aux, hMiraMonLayer->nSRSType == MM_SRS_LAYER_IS_PROJECTED_TYPE ? 3 : 9)) return 1; // Before allocating new memory, there might be some previously allocated but unused memory. // Let's free that memory first. if (hMiraMonLayer->MMPolygon.MMArc.MMNode.MMAdmDB.pMMBDXP) MM_ReleaseDBFHeader( &hMiraMonLayer->MMPolygon.MMArc.MMNode.MMAdmDB.pMMBDXP); pBD_XP_Aux = hMiraMonLayer->MMPolygon.MMArc.MMNode.MMAdmDB.pMMBDXP = MM_CreateDBFHeader(3, hMiraMonLayer->nCharSet); if (!pBD_XP_Aux) return 1; if (0 == MM_DefineFirstNodeFieldsDB_XP(pBD_XP_Aux)) return 1; } else if (hMiraMonLayer->bIsDBF) { // Creating only a DBF if (hMiraMonLayer->pLayerDB) nNFields = hMiraMonLayer->pLayerDB->nNFields; else nNFields = 0; pBD_XP = hMiraMonLayer->MMAdmDBWriting.pMMBDXP = MM_CreateDBFHeader(nNFields, hMiraMonLayer->nCharSet); if (!pBD_XP) return 1; } else return 0; // After private MiraMon fields, other fields are added. // If names are no compatible, some changes are done. if (hMiraMonLayer->pLayerDB) { for (nIFieldLayer = 0; nIField < nNFields; nIField++, nIFieldLayer++) { MM_InitializeField(&MMField); CPLStrlcpy( MMField.FieldName, hMiraMonLayer->pLayerDB->pFields[nIFieldLayer].pszFieldName, MM_MAX_LON_FIELD_NAME_DBF); CPLStrlcpy(MMField.FieldDescription[0], hMiraMonLayer->pLayerDB->pFields[nIFieldLayer] .pszFieldDescription, MM_MAX_BYTES_FIELD_DESC); MMField.BytesPerField = hMiraMonLayer->pLayerDB->pFields[nIFieldLayer].nFieldSize; switch (hMiraMonLayer->pLayerDB->pFields[nIFieldLayer].eFieldType) { case MM_Numeric: MMField.FieldType = 'N'; if (hMiraMonLayer->pLayerDB->pFields[nIFieldLayer] .bIs64BitInteger) MMField.Is64 = 1; if (MMField.BytesPerField == 0) MMField.BytesPerField = MM_MAX_AMPLADA_CAMP_N_DBF; break; case MM_Character: MMField.FieldType = 'C'; if (MMField.BytesPerField == 0) MMField.BytesPerField = MM_MAX_AMPLADA_CAMP_C_DBF; break; case MM_Data: MMField.FieldType = 'D'; if (MMField.BytesPerField == 0) MMField.BytesPerField = MM_MAX_AMPLADA_CAMP_D_DBF; break; case MM_Logic: MMField.FieldType = 'L'; if (MMField.BytesPerField == 0) MMField.BytesPerField = 1; break; default: MMField.FieldType = 'C'; if (MMField.BytesPerField == 0) MMField.BytesPerField = MM_MAX_AMPLADA_CAMP_C_DBF; }; MMField.DecimalsIfFloat = (MM_BYTE)hMiraMonLayer->pLayerDB->pFields[nIFieldLayer] .nNumberOfDecimals; MM_DuplicateFieldDBXP(pBD_XP->pField + nIField, &MMField); MM_ModifyFieldNameAndDescriptorIfPresentBD_XP( pBD_XP->pField + nIField, pBD_XP, FALSE, 0); if (pBD_XP->pField[nIField].FieldType == 'F') pBD_XP->pField[nIField].FieldType = 'N'; } } if (hMiraMonLayer->bIsPoint) { if (MMInitMMDB(hMiraMonLayer, &hMiraMonLayer->MMPoint.MMAdmDB)) return 1; } else if (hMiraMonLayer->bIsArc && !hMiraMonLayer->bIsPolygon) { if (MMInitMMDB(hMiraMonLayer, &hMiraMonLayer->MMArc.MMAdmDB)) return 1; if (MMInitMMDB(hMiraMonLayer, &hMiraMonLayer->MMArc.MMNode.MMAdmDB)) return 1; } else if (hMiraMonLayer->bIsPolygon) { if (MMInitMMDB(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMAdmDB)) return 1; if (MMInitMMDB(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMArc.MMAdmDB)) return 1; if (MMInitMMDB(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMArc.MMNode.MMAdmDB)) return 1; } else if (hMiraMonLayer->bIsDBF) { if (MMInitMMDB(hMiraMonLayer, &hMiraMonLayer->MMAdmDBWriting)) return 1; } return 0; } // Checks and fits the width of a specific field in a MiraMon database // associated with a vector layer. It examines the length of the provided // value and resizes the field width, if necessary, to accommodate the new // value. If the new width exceeds the current width of the field, // it updates the database structure, including the field width and // the size of the record. Additionally, it reallocates memory if needed // for the record handling buffer. static int MMTestAndFixValueToRecordDBXP(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MMAdmDatabase *pMMAdmDB, MM_EXT_DBF_N_FIELDS nIField, char *szValue) { struct MM_FIELD *camp; MM_BYTES_PER_FIELD_TYPE_DBF nNewWidth; if (!hMiraMonLayer || !pMMAdmDB || !pMMAdmDB->pMMBDXP || !pMMAdmDB->pMMBDXP->pField || !pMMAdmDB->pMMBDXP->pfDataBase) return 1; camp = pMMAdmDB->pMMBDXP->pField + nIField; if (!szValue) return 0; nNewWidth = (MM_BYTES_PER_FIELD_TYPE_DBF)strlen(szValue); if (MMResizeStringToOperateIfNeeded(hMiraMonLayer, nNewWidth + 1)) return 1; if (nNewWidth > camp->BytesPerField) { if (MM_WriteNRecordsMMBD_XPFile(pMMAdmDB)) return 1; // Flushing all to be flushed pMMAdmDB->FlushRecList.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&pMMAdmDB->FlushRecList)) return 1; if (MM_ChangeDBFWidthField( pMMAdmDB->pMMBDXP, nIField, nNewWidth, pMMAdmDB->pMMBDXP->pField[nIField].DecimalsIfFloat)) return 1; // The record on course also has to change its size. if ((GUInt64)pMMAdmDB->pMMBDXP->BytesPerRecord + 1 >= pMMAdmDB->nNumRecordOnCourse) { void *pTmp; if (nullptr == (pTmp = VSIRealloc( pMMAdmDB->szRecordOnCourse, (size_t)pMMAdmDB->pMMBDXP->BytesPerRecord + 1))) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMTestAndFixValueToRecordDBXP())"); return 1; } pMMAdmDB->szRecordOnCourse = pTmp; } // File has changed its size, so it has to be updated // at the Flush tool VSIFSeekL(pMMAdmDB->pMMBDXP->pfDataBase, 0, SEEK_END); pMMAdmDB->FlushRecList.OffsetWhereToFlush = VSIFTellL(pMMAdmDB->pMMBDXP->pfDataBase); } return 0; } static int MMWriteValueToszStringToOperate(struct MiraMonVectLayerInfo *hMiraMonLayer, const struct MM_FIELD *camp, const void *valor, MM_BOOLEAN is_64) { if (!hMiraMonLayer) return 1; if (!camp) return 0; if (MMResizeStringToOperateIfNeeded(hMiraMonLayer, camp->BytesPerField + 10)) return 1; if (!valor) *hMiraMonLayer->szStringToOperate = '\0'; else { if (camp->FieldType == 'N') { if (!is_64) { snprintf(hMiraMonLayer->szStringToOperate, (size_t)hMiraMonLayer->nNumStringToOperate, "%*.*f", camp->BytesPerField, camp->DecimalsIfFloat, *(const double *)valor); } else { snprintf(hMiraMonLayer->szStringToOperate, (size_t)hMiraMonLayer->nNumStringToOperate, "%*lld", camp->BytesPerField, *(const GInt64 *)valor); } } else { snprintf(hMiraMonLayer->szStringToOperate, (size_t)hMiraMonLayer->nNumStringToOperate, "%-*s", camp->BytesPerField, (const char *)valor); } } return 0; } int MMWritePreformatedNumberValueToRecordDBXP( struct MiraMonVectLayerInfo *hMiraMonLayer, char *registre, const struct MM_FIELD *camp, const char *valor) { if (!hMiraMonLayer) return 1; if (!camp) return 0; if (MMResizeStringToOperateIfNeeded(hMiraMonLayer, camp->BytesPerField + 10)) return 1; if (!valor) memset(hMiraMonLayer->szStringToOperate, 0, camp->BytesPerField); else { snprintf(hMiraMonLayer->szStringToOperate, (size_t)hMiraMonLayer->nNumStringToOperate, "%*s", camp->BytesPerField, valor); } memcpy(registre + camp->AccumulatedBytes, hMiraMonLayer->szStringToOperate, camp->BytesPerField); return 0; } int MMWriteValueToRecordDBXP(struct MiraMonVectLayerInfo *hMiraMonLayer, char *registre, const struct MM_FIELD *camp, const void *valor, MM_BOOLEAN is_64) { if (!hMiraMonLayer) return 1; if (!camp) return 0; if (MMWriteValueToszStringToOperate(hMiraMonLayer, camp, valor, is_64)) return 1; memcpy(registre + camp->AccumulatedBytes, hMiraMonLayer->szStringToOperate, camp->BytesPerField); return 0; } static int MMAddFeatureRecordToMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature, struct MMAdmDatabase *pMMAdmDB, char *pszRecordOnCourse, struct MM_FLUSH_INFO *pFlushRecList, MM_EXT_DBF_N_RECORDS *nNumRecords, MM_EXT_DBF_N_FIELDS nNumPrivateMMField) { MM_EXT_DBF_N_MULTIPLE_RECORDS nIRecord; MM_EXT_DBF_N_FIELDS nIField; struct MM_DATA_BASE_XP *pBD_XP = nullptr; if (!hMiraMonLayer) return 1; if (!hMMFeature) return 1; pBD_XP = pMMAdmDB->pMMBDXP; for (nIRecord = 0; nIRecord < hMMFeature->nNumMRecords; nIRecord++) { for (nIField = 0; nIField < hMMFeature->pRecords[nIRecord].nNumField; nIField++) { // A field with no valid value is written as blank if (!hMMFeature->pRecords[nIRecord].pField[nIField].bIsValid) { memset( pszRecordOnCourse + pBD_XP->pField[nIField + nNumPrivateMMField] .AccumulatedBytes, ' ', pBD_XP->pField[nIField + nNumPrivateMMField].BytesPerField); continue; } if (pBD_XP->pField[nIField + nNumPrivateMMField].FieldType == 'C' || pBD_XP->pField[nIField + nNumPrivateMMField].FieldType == 'L' || pBD_XP->pField[nIField + nNumPrivateMMField].FieldType == 'D') { if (MMWriteValueToRecordDBXP(hMiraMonLayer, pszRecordOnCourse, pBD_XP->pField + nIField + nNumPrivateMMField, hMMFeature->pRecords[nIRecord] .pField[nIField] .pDinValue, FALSE)) return 1; } else if (pBD_XP->pField[nIField + nNumPrivateMMField].FieldType == 'N' && !pBD_XP->pField[nIField + nNumPrivateMMField].Is64) { if (MMWritePreformatedNumberValueToRecordDBXP( hMiraMonLayer, pszRecordOnCourse, pBD_XP->pField + nIField + nNumPrivateMMField, hMMFeature->pRecords[nIRecord] .pField[nIField] .pDinValue)) return 1; } else if (pBD_XP->pField[nIField + nNumPrivateMMField].FieldType == 'N') { if (pBD_XP->pField[nIField + nNumPrivateMMField].Is64) { if (MMWriteValueToRecordDBXP( hMiraMonLayer, pszRecordOnCourse, pBD_XP->pField + nIField + nNumPrivateMMField, &hMMFeature->pRecords[nIRecord] .pField[nIField] .iValue, TRUE)) return 1; } } } if (MMAppendBlockToBuffer(pFlushRecList)) return 1; (*nNumRecords)++; } return 0; } // Adds feature records to a MiraMon database associated with a vector layer. static int MMDetectAndFixDBFWidthChange( struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature, struct MMAdmDatabase *pMMAdmDB, MM_EXT_DBF_N_FIELDS nNumPrivateMMField, MM_EXT_DBF_N_MULTIPLE_RECORDS nIRecord, MM_EXT_DBF_N_FIELDS nIField) { if (!hMiraMonLayer) return 1; if (!hMMFeature) return 1; if (nIRecord >= hMMFeature->nNumMRecords) return 1; if (nIField >= hMMFeature->pRecords[nIRecord].nNumField) return 1; if (MMTestAndFixValueToRecordDBXP( hMiraMonLayer, pMMAdmDB, nIField + nNumPrivateMMField, hMMFeature->pRecords[nIRecord].pField[nIField].pDinValue)) return 1; // We analyze next fields if (nIField == hMMFeature->pRecords[nIRecord].nNumField - 1) { if (nIRecord + 1 < hMMFeature->nNumMRecords) { if (MMDetectAndFixDBFWidthChange(hMiraMonLayer, hMMFeature, pMMAdmDB, nNumPrivateMMField, nIRecord + 1, 0)) return 1; } else return 0; } else { if (nIField + 1 < hMMFeature->pRecords[nIRecord].nNumField) { if (MMDetectAndFixDBFWidthChange(hMiraMonLayer, hMMFeature, pMMAdmDB, nNumPrivateMMField, nIRecord, nIField + 1)) return 1; } else return 0; } return 0; } // End of MMDetectAndFixDBFWidthChange() // Adds a DBF record to a MiraMon table associated with a vector layer. // It sets up flush settings for writing to the table and initializes // variables needed for the process. Then, it checks and fixes the width // change if necessary. int MMAddDBFRecordToMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature) { struct MM_DATA_BASE_XP *pBD_XP = nullptr; MM_EXT_DBF_N_FIELDS nNumPrivateMMField = 0; struct MM_FLUSH_INFO *pFlushRecList; if (!hMiraMonLayer) return MM_FATAL_ERROR_WRITING_FEATURES; pBD_XP = hMiraMonLayer->MMAdmDBWriting.pMMBDXP; // Test length if (hMMFeature && hMMFeature->nNumMRecords && hMMFeature->pRecords[0].nNumField) { if (MMDetectAndFixDBFWidthChange(hMiraMonLayer, hMMFeature, &hMiraMonLayer->MMAdmDBWriting, nNumPrivateMMField, 0, 0)) return MM_FATAL_ERROR_WRITING_FEATURES; } // Adding record to the MiraMon table (extended DBF) // Flush settings pFlushRecList = &hMiraMonLayer->MMAdmDBWriting.FlushRecList; pFlushRecList->pBlockWhereToSaveOrRead = (void *)hMiraMonLayer->MMAdmDBWriting.pRecList; pFlushRecList->pBlockToBeSaved = (void *)hMiraMonLayer->MMAdmDBWriting.szRecordOnCourse; pFlushRecList->SizeOfBlockToBeSaved = pBD_XP->BytesPerRecord; if (MMAddFeatureRecordToMMDB( hMiraMonLayer, hMMFeature, &hMiraMonLayer->MMAdmDBWriting, hMiraMonLayer->MMAdmDBWriting.szRecordOnCourse, pFlushRecList, &hMiraMonLayer->MMAdmDBWriting.pMMBDXP->nRecords, nNumPrivateMMField)) return MM_FATAL_ERROR_WRITING_FEATURES; // In this case, the number of features is also updated hMiraMonLayer->TopHeader.nElemCount = hMiraMonLayer->MMAdmDBWriting.pMMBDXP->nRecords; return MM_CONTINUE_WRITING_FEATURES; } // Adds a point record to a MiraMon table associated with a vector layer. int MMAddPointRecordToMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature, MM_INTERNAL_FID nElemCount) { struct MM_DATA_BASE_XP *pBD_XP = nullptr; MM_EXT_DBF_N_FIELDS nNumPrivateMMField = MM_PRIVATE_POINT_DB_FIELDS; struct MM_FLUSH_INFO *pFlushRecList; if (!hMiraMonLayer) return MM_FATAL_ERROR_WRITING_FEATURES; if (!hMMFeature) return MM_FATAL_ERROR_WRITING_FEATURES; // In V1.1 only _UI32_MAX records number is allowed if (MMCheckVersionForFID(hMiraMonLayer, hMiraMonLayer->MMPoint.MMAdmDB.pMMBDXP->nRecords + hMMFeature->nNumMRecords)) { CPLError(CE_Failure, CPLE_NotSupported, "Error in MMCheckVersionForFID() (6)"); return MM_STOP_WRITING_FEATURES; } pBD_XP = hMiraMonLayer->MMPoint.MMAdmDB.pMMBDXP; // Test length // Private fields // ID_GRAFIC if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField, &nElemCount, TRUE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &hMiraMonLayer->MMPoint.MMAdmDB, 0, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // GDAL fields if (hMMFeature->nNumMRecords && hMMFeature->pRecords[0].nNumField) { if (MMDetectAndFixDBFWidthChange(hMiraMonLayer, hMMFeature, &hMiraMonLayer->MMPoint.MMAdmDB, nNumPrivateMMField, 0, 0)) return MM_FATAL_ERROR_WRITING_FEATURES; } // Now length is sure, write memset(hMiraMonLayer->MMPoint.MMAdmDB.szRecordOnCourse, 0, pBD_XP->BytesPerRecord); MMWriteValueToRecordDBXP(hMiraMonLayer, hMiraMonLayer->MMPoint.MMAdmDB.szRecordOnCourse, pBD_XP->pField, &nElemCount, TRUE); // Adding record to the MiraMon table (extended DBF) // Flush settings pFlushRecList = &hMiraMonLayer->MMPoint.MMAdmDB.FlushRecList; pFlushRecList->pBlockWhereToSaveOrRead = (void *)hMiraMonLayer->MMPoint.MMAdmDB.pRecList; pFlushRecList->pBlockToBeSaved = (void *)hMiraMonLayer->MMPoint.MMAdmDB.szRecordOnCourse; pFlushRecList->SizeOfBlockToBeSaved = pBD_XP->BytesPerRecord; if (MMAddFeatureRecordToMMDB( hMiraMonLayer, hMMFeature, &hMiraMonLayer->MMPoint.MMAdmDB, hMiraMonLayer->MMPoint.MMAdmDB.szRecordOnCourse, pFlushRecList, &hMiraMonLayer->MMPoint.MMAdmDB.pMMBDXP->nRecords, nNumPrivateMMField)) return MM_FATAL_ERROR_WRITING_FEATURES; return MM_CONTINUE_WRITING_FEATURES; } // Adds a stringline record to a MiraMon table associated with a vector layer. int MMAddArcRecordToMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature, MM_INTERNAL_FID nElemCount, struct MM_AH *pArcHeader) { struct MM_DATA_BASE_XP *pBD_XP = nullptr; struct MiraMonArcLayer *pMMArcLayer; MM_EXT_DBF_N_FIELDS nNumPrivateMMField = MM_PRIVATE_ARC_DB_FIELDS; struct MM_FLUSH_INFO *pFlushRecList; if (!hMiraMonLayer) return MM_FATAL_ERROR_WRITING_FEATURES; if (hMiraMonLayer->bIsPolygon) pMMArcLayer = &hMiraMonLayer->MMPolygon.MMArc; else pMMArcLayer = &hMiraMonLayer->MMArc; // In V1.1 only _UI32_MAX records number is allowed if (hMiraMonLayer->bIsPolygon) { if (MMCheckVersionForFID(hMiraMonLayer, pMMArcLayer->MMAdmDB.pMMBDXP->nRecords + 1)) { CPLError(CE_Failure, CPLE_NotSupported, "Error in MMCheckVersionForFID() (7)"); return MM_STOP_WRITING_FEATURES; } } else { if (MMCheckVersionForFID(hMiraMonLayer, pMMArcLayer->MMAdmDB.pMMBDXP->nRecords + hMMFeature->nNumMRecords)) { CPLError(CE_Failure, CPLE_NotSupported, "Error in MMCheckVersionForFID() (8)"); return MM_STOP_WRITING_FEATURES; } } pBD_XP = pMMArcLayer->MMAdmDB.pMMBDXP; // Test length // Private fields // ID_GRAFIC if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField, &nElemCount, TRUE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &pMMArcLayer->MMAdmDB, 0, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // N_VERTEXS if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField + 1, &pArcHeader->nElemCount, TRUE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &pMMArcLayer->MMAdmDB, 1, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // LENGTH if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField + 2, &pArcHeader->dfLength, FALSE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &pMMArcLayer->MMAdmDB, 2, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // NODE_INI if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField + 3, &pArcHeader->nFirstIdNode, TRUE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &pMMArcLayer->MMAdmDB, 3, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // NODE_FI if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField + 4, &pArcHeader->nLastIdNode, TRUE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &pMMArcLayer->MMAdmDB, 4, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // GDAL fields if (!hMiraMonLayer->bIsPolygon) { if (hMMFeature->nNumMRecords && hMMFeature->pRecords[0].nNumField) { if (MMDetectAndFixDBFWidthChange(hMiraMonLayer, hMMFeature, &pMMArcLayer->MMAdmDB, nNumPrivateMMField, 0, 0)) return MM_FATAL_ERROR_WRITING_FEATURES; } } // Now length is sure, write memset(pMMArcLayer->MMAdmDB.szRecordOnCourse, 0, pBD_XP->BytesPerRecord); MMWriteValueToRecordDBXP(hMiraMonLayer, pMMArcLayer->MMAdmDB.szRecordOnCourse, pBD_XP->pField, &nElemCount, TRUE); MMWriteValueToRecordDBXP(hMiraMonLayer, pMMArcLayer->MMAdmDB.szRecordOnCourse, pBD_XP->pField + 1, &pArcHeader->nElemCount, TRUE); MMWriteValueToRecordDBXP(hMiraMonLayer, pMMArcLayer->MMAdmDB.szRecordOnCourse, pBD_XP->pField + 2, &pArcHeader->dfLength, FALSE); MMWriteValueToRecordDBXP( hMiraMonLayer, pMMArcLayer->MMAdmDB.szRecordOnCourse, pBD_XP->pField + 3, &pArcHeader->nFirstIdNode, TRUE); MMWriteValueToRecordDBXP( hMiraMonLayer, pMMArcLayer->MMAdmDB.szRecordOnCourse, pBD_XP->pField + 4, &pArcHeader->nLastIdNode, TRUE); // Adding record to the MiraMon table (extended DBF) // Flush settings pFlushRecList = &pMMArcLayer->MMAdmDB.FlushRecList; pFlushRecList->pBlockWhereToSaveOrRead = (void *)pMMArcLayer->MMAdmDB.pRecList; pFlushRecList->SizeOfBlockToBeSaved = pBD_XP->BytesPerRecord; pFlushRecList->pBlockToBeSaved = (void *)pMMArcLayer->MMAdmDB.szRecordOnCourse; if (hMiraMonLayer->bIsPolygon) { if (MMAppendBlockToBuffer(pFlushRecList)) return MM_FATAL_ERROR_WRITING_FEATURES; pMMArcLayer->MMAdmDB.pMMBDXP->nRecords++; return MM_CONTINUE_WRITING_FEATURES; } pFlushRecList->SizeOfBlockToBeSaved = pBD_XP->BytesPerRecord; if (MMAddFeatureRecordToMMDB( hMiraMonLayer, hMMFeature, &pMMArcLayer->MMAdmDB, pMMArcLayer->MMAdmDB.szRecordOnCourse, pFlushRecList, &pMMArcLayer->MMAdmDB.pMMBDXP->nRecords, nNumPrivateMMField)) return MM_FATAL_ERROR_WRITING_FEATURES; return MM_CONTINUE_WRITING_FEATURES; } // Adds a node record to a MiraMon table associated with a vector layer. int MMAddNodeRecordToMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, MM_INTERNAL_FID nElemCount, struct MM_NH *pNodeHeader) { struct MM_DATA_BASE_XP *pBD_XP = nullptr; struct MiraMonNodeLayer *pMMNodeLayer; double nDoubleValue; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->bIsPolygon) pMMNodeLayer = &hMiraMonLayer->MMPolygon.MMArc.MMNode; else pMMNodeLayer = &hMiraMonLayer->MMArc.MMNode; if (!pMMNodeLayer) { CPLError(CE_Failure, CPLE_NotSupported, "Error in pMMNodeLayer() (1)"); return MM_STOP_WRITING_FEATURES; } // In V1.1 only _UI32_MAX records number is allowed if (MMCheckVersionForFID(hMiraMonLayer, pMMNodeLayer->MMAdmDB.pMMBDXP->nRecords + 1)) { CPLError(CE_Failure, CPLE_NotSupported, "Error in MMCheckVersionForFID() (9)"); return MM_STOP_WRITING_FEATURES; } // Test length // Private fields // ID_GRAFIC if (MMWriteValueToszStringToOperate(hMiraMonLayer, pMMNodeLayer->MMAdmDB.pMMBDXP->pField, &nElemCount, TRUE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &pMMNodeLayer->MMAdmDB, 0, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // ARCS_A_NOD nDoubleValue = pNodeHeader->nArcsCount; if (MMWriteValueToszStringToOperate( hMiraMonLayer, pMMNodeLayer->MMAdmDB.pMMBDXP->pField + 1, &nDoubleValue, FALSE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &pMMNodeLayer->MMAdmDB, 1, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // TIPUS_NODE nDoubleValue = pNodeHeader->cNodeType; if (MMWriteValueToszStringToOperate( hMiraMonLayer, pMMNodeLayer->MMAdmDB.pMMBDXP->pField + 2, &nDoubleValue, FALSE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &pMMNodeLayer->MMAdmDB, 2, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // Adding record to the MiraMon table (extended DBF) // Flush settings pMMNodeLayer->MMAdmDB.FlushRecList.pBlockWhereToSaveOrRead = (void *)pMMNodeLayer->MMAdmDB.pRecList; pBD_XP = pMMNodeLayer->MMAdmDB.pMMBDXP; pMMNodeLayer->MMAdmDB.FlushRecList.SizeOfBlockToBeSaved = pBD_XP->BytesPerRecord; pMMNodeLayer->MMAdmDB.FlushRecList.pBlockToBeSaved = (void *)pMMNodeLayer->MMAdmDB.szRecordOnCourse; memset(pMMNodeLayer->MMAdmDB.szRecordOnCourse, 0, pBD_XP->BytesPerRecord); MMWriteValueToRecordDBXP(hMiraMonLayer, pMMNodeLayer->MMAdmDB.szRecordOnCourse, pBD_XP->pField, &nElemCount, TRUE); nDoubleValue = pNodeHeader->nArcsCount; MMWriteValueToRecordDBXP(hMiraMonLayer, pMMNodeLayer->MMAdmDB.szRecordOnCourse, pBD_XP->pField + 1, &nDoubleValue, FALSE); nDoubleValue = pNodeHeader->cNodeType; MMWriteValueToRecordDBXP(hMiraMonLayer, pMMNodeLayer->MMAdmDB.szRecordOnCourse, pBD_XP->pField + 2, &nDoubleValue, FALSE); if (MMAppendBlockToBuffer(&pMMNodeLayer->MMAdmDB.FlushRecList)) return MM_FATAL_ERROR_WRITING_FEATURES; pMMNodeLayer->MMAdmDB.pMMBDXP->nRecords++; return MM_CONTINUE_WRITING_FEATURES; } // Adds a polygon or multipolygon record to a MiraMon table // associated with a vector layer. int MMAddPolygonRecordToMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MiraMonFeature *hMMFeature, MM_INTERNAL_FID nElemCount, MM_N_VERTICES_TYPE nVerticesCount, struct MM_PH *pPolHeader) { struct MM_DATA_BASE_XP *pBD_XP = nullptr; MM_EXT_DBF_N_FIELDS nNumPrivateMMField = MM_PRIVATE_POLYGON_DB_FIELDS; struct MM_FLUSH_INFO *pFlushRecList; if (!hMiraMonLayer) return MM_FATAL_ERROR_WRITING_FEATURES; // In V1.1 only _UI32_MAX records number is allowed if (MMCheckVersionForFID( hMiraMonLayer, hMiraMonLayer->MMPolygon.MMAdmDB.pMMBDXP->nRecords + (hMMFeature ? hMMFeature->nNumMRecords : 0))) return MM_STOP_WRITING_FEATURES; pBD_XP = hMiraMonLayer->MMPolygon.MMAdmDB.pMMBDXP; // Test length // Private fields // ID_GRAFIC if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField, &nElemCount, TRUE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMAdmDB, 0, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // The other fields are valid if pPolHeader exists (it is not // the universal polygon) if (pPolHeader) { // N_VERTEXS if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField + 1, &nVerticesCount, TRUE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMAdmDB, 1, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // PERIMETER if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField + 2, &pPolHeader->dfPerimeter, FALSE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMAdmDB, 2, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // AREA if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField + 3, &pPolHeader->dfArea, FALSE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMAdmDB, 3, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // N_ARCS if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField + 4, &pPolHeader->nArcsCount, TRUE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMAdmDB, 4, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; // N_POLIG if (MMWriteValueToszStringToOperate(hMiraMonLayer, pBD_XP->pField + 5, &pPolHeader->nRingsCount, TRUE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (MMTestAndFixValueToRecordDBXP(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMAdmDB, 5, hMiraMonLayer->szStringToOperate)) return MM_FATAL_ERROR_WRITING_FEATURES; } // GDAL fields if (hMMFeature && hMMFeature->nNumMRecords && hMMFeature->pRecords[0].nNumField) { if (MMDetectAndFixDBFWidthChange(hMiraMonLayer, hMMFeature, &hMiraMonLayer->MMPolygon.MMAdmDB, nNumPrivateMMField, 0, 0)) return MM_FATAL_ERROR_WRITING_FEATURES; } // Adding record to the MiraMon table (extended DBF) // Flush settings pFlushRecList = &hMiraMonLayer->MMPolygon.MMAdmDB.FlushRecList; pFlushRecList->pBlockWhereToSaveOrRead = (void *)hMiraMonLayer->MMPolygon.MMAdmDB.pRecList; pFlushRecList->SizeOfBlockToBeSaved = pBD_XP->BytesPerRecord; pFlushRecList->pBlockToBeSaved = (void *)hMiraMonLayer->MMPolygon.MMAdmDB.szRecordOnCourse; // Now length is sure, write memset(hMiraMonLayer->MMPolygon.MMAdmDB.szRecordOnCourse, ' ', pBD_XP->BytesPerRecord); if (MMWriteValueToRecordDBXP( hMiraMonLayer, hMiraMonLayer->MMPolygon.MMAdmDB.szRecordOnCourse, pBD_XP->pField, &nElemCount, TRUE)) return MM_FATAL_ERROR_WRITING_FEATURES; if (!hMMFeature) { if (MMAppendBlockToBuffer(pFlushRecList)) return MM_FATAL_ERROR_WRITING_FEATURES; hMiraMonLayer->MMPolygon.MMAdmDB.pMMBDXP->nRecords++; return MM_CONTINUE_WRITING_FEATURES; } if (pPolHeader) { MMWriteValueToRecordDBXP( hMiraMonLayer, hMiraMonLayer->MMPolygon.MMAdmDB.szRecordOnCourse, pBD_XP->pField + 1, &nVerticesCount, TRUE); MMWriteValueToRecordDBXP( hMiraMonLayer, hMiraMonLayer->MMPolygon.MMAdmDB.szRecordOnCourse, pBD_XP->pField + 2, &pPolHeader->dfPerimeter, FALSE); MMWriteValueToRecordDBXP( hMiraMonLayer, hMiraMonLayer->MMPolygon.MMAdmDB.szRecordOnCourse, pBD_XP->pField + 3, &pPolHeader->dfArea, FALSE); MMWriteValueToRecordDBXP( hMiraMonLayer, hMiraMonLayer->MMPolygon.MMAdmDB.szRecordOnCourse, pBD_XP->pField + 4, &pPolHeader->nArcsCount, TRUE); MMWriteValueToRecordDBXP( hMiraMonLayer, hMiraMonLayer->MMPolygon.MMAdmDB.szRecordOnCourse, pBD_XP->pField + 5, &pPolHeader->nRingsCount, TRUE); } pFlushRecList->SizeOfBlockToBeSaved = pBD_XP->BytesPerRecord; if (MMAddFeatureRecordToMMDB( hMiraMonLayer, hMMFeature, &hMiraMonLayer->MMPolygon.MMAdmDB, hMiraMonLayer->MMPolygon.MMAdmDB.szRecordOnCourse, pFlushRecList, &hMiraMonLayer->MMPolygon.MMAdmDB.pMMBDXP->nRecords, nNumPrivateMMField)) return MM_FATAL_ERROR_WRITING_FEATURES; return MM_CONTINUE_WRITING_FEATURES; } // Close the MiraMon database associated with a vector layer. static int MMCloseMMBD_XPFile(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MMAdmDatabase *MMAdmDB) { int ret_code = 1; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->ReadOrWrite == MM_WRITING_MODE) { if (!MMAdmDB->pMMBDXP || (MMAdmDB->pMMBDXP && !MMAdmDB->pMMBDXP->pfDataBase)) { // In case of 0 elements created we have to // create an empty DBF if (hMiraMonLayer->bIsPolygon) { if (hMiraMonLayer->TopHeader.nElemCount <= 1) { if (MMCreateMMDB(hMiraMonLayer, nullptr)) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMCreateMMDB())"); goto end_label; } } } else if (hMiraMonLayer->bIsPoint || hMiraMonLayer->bIsArc) { if (hMiraMonLayer->TopHeader.nElemCount == 0) { if (MMCreateMMDB(hMiraMonLayer, nullptr)) { CPLError(CE_Failure, CPLE_OutOfMemory, "Memory error in MiraMon " "driver (MMCreateMMDB())"); goto end_label; } } } } if (MM_WriteNRecordsMMBD_XPFile(MMAdmDB)) goto end_label; // Flushing all to be flushed MMAdmDB->FlushRecList.SizeOfBlockToBeSaved = 0; if (MMAppendBlockToBuffer(&MMAdmDB->FlushRecList)) goto end_label; } ret_code = 0; end_label: // Closing database files if (MMAdmDB && MMAdmDB->pMMBDXP && MMAdmDB->pMMBDXP->pfDataBase) fclose_and_nullify(&MMAdmDB->pMMBDXP->pfDataBase); return ret_code; } int MMCloseMMBD_XP(struct MiraMonVectLayerInfo *hMiraMonLayer) { int ret_code = 0; if (!hMiraMonLayer) return 1; if (hMiraMonLayer->pMMBDXP && hMiraMonLayer->pMMBDXP->pfDataBase) { fclose_and_nullify(&hMiraMonLayer->pMMBDXP->pfDataBase); } if (hMiraMonLayer->bIsPoint) ret_code = MMCloseMMBD_XPFile(hMiraMonLayer, &hMiraMonLayer->MMPoint.MMAdmDB); else if (hMiraMonLayer->bIsArc && !hMiraMonLayer->bIsPolygon) { if (MMCloseMMBD_XPFile(hMiraMonLayer, &hMiraMonLayer->MMArc.MMAdmDB)) ret_code = 1; if (MMCloseMMBD_XPFile(hMiraMonLayer, &hMiraMonLayer->MMArc.MMNode.MMAdmDB)) ret_code = 1; } else if (hMiraMonLayer->bIsPolygon) { if (MMCloseMMBD_XPFile(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMAdmDB)) ret_code = 1; if (MMCloseMMBD_XPFile(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMArc.MMAdmDB)) ret_code = 1; if (MMCloseMMBD_XPFile(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMArc.MMNode.MMAdmDB)) ret_code = 1; } else if (hMiraMonLayer->bIsDBF) ret_code = MMCloseMMBD_XPFile(hMiraMonLayer, &hMiraMonLayer->MMAdmDBWriting); return ret_code; } // Destroys the memory used to create a MiraMon table associated // with a vector layer. static void MMDestroyMMDBFile(struct MiraMonVectLayerInfo *hMiraMonLayer, struct MMAdmDatabase *pMMAdmDB) { if (!hMiraMonLayer) return; if (pMMAdmDB && pMMAdmDB->szRecordOnCourse) { VSIFree(pMMAdmDB->szRecordOnCourse); pMMAdmDB->szRecordOnCourse = nullptr; } if (hMiraMonLayer->szStringToOperate) { VSIFree(hMiraMonLayer->szStringToOperate); hMiraMonLayer->szStringToOperate = nullptr; hMiraMonLayer->nNumStringToOperate = 0; } if (pMMAdmDB && pMMAdmDB->pMMBDXP) { MM_ReleaseDBFHeader(&pMMAdmDB->pMMBDXP); hMiraMonLayer->pMMBDXP = nullptr; } if (pMMAdmDB && pMMAdmDB->pRecList) { VSIFree(pMMAdmDB->pRecList); pMMAdmDB->pRecList = nullptr; } } void MMDestroyMMDB(struct MiraMonVectLayerInfo *hMiraMonLayer) { if (!hMiraMonLayer) return; if (hMiraMonLayer->bIsPoint) { MMDestroyMMDBFile(hMiraMonLayer, &hMiraMonLayer->MMPoint.MMAdmDB); return; } if (hMiraMonLayer->bIsArc && !hMiraMonLayer->bIsPolygon) { MMDestroyMMDBFile(hMiraMonLayer, &hMiraMonLayer->MMArc.MMAdmDB); MMDestroyMMDBFile(hMiraMonLayer, &hMiraMonLayer->MMArc.MMNode.MMAdmDB); return; } if (hMiraMonLayer->bIsPolygon) { MMDestroyMMDBFile(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMAdmDB); MMDestroyMMDBFile(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMArc.MMAdmDB); MMDestroyMMDBFile(hMiraMonLayer, &hMiraMonLayer->MMPolygon.MMArc.MMNode.MMAdmDB); } if (hMiraMonLayer->bIsDBF) MMDestroyMMDBFile(hMiraMonLayer, &hMiraMonLayer->MMAdmDBWriting); } // COMING FROM mm_gdal_functions.c/h but only used here void MM_FillFieldDescriptorByLanguage(void) { CPLStrlcpy(szInternalGraphicIdentifierEng, "Internal Graphic identifier", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szInternalGraphicIdentifierCat, "Identificador Grafic intern", MM_MAX_IDENTIFIER_SIZE); *(unsigned char *)&szInternalGraphicIdentifierCat[16] = MM_a_WITH_GRAVE; CPLStrlcpy(szInternalGraphicIdentifierSpa, "Identificador Grafico interno", MM_MAX_IDENTIFIER_SIZE); *(unsigned char *)&szInternalGraphicIdentifierSpa[16] = MM_a_WITH_ACUTE; CPLStrlcpy(szNumberOfVerticesEng, "Number of vertices", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szNumberOfVerticesCat, "Nombre de vertexs", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szNumberOfVerticesSpa, "Numero de vertices", MM_MAX_IDENTIFIER_SIZE); *(unsigned char *)&szNumberOfVerticesCat[11] = MM_e_WITH_GRAVE; *(unsigned char *)&szNumberOfVerticesSpa[1] = MM_u_WITH_ACUTE; *(unsigned char *)&szNumberOfVerticesSpa[11] = MM_e_WITH_ACUTE; CPLStrlcpy(szLengthOfAarcEng, "Length of arc", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szLengthOfAarcCat, "Longitud de l'arc", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szLengthOfAarcSpa, "Longitud del arco", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szInitialNodeEng, "Initial node", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szInitialNodeCat, "Node inicial", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szInitialNodeSpa, "Nodo inicial", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szFinalNodeEng, "Final node", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szFinalNodeCat, "Node final", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szFinalNodeSpa, "Nodo final", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szNumberOfArcsToNodeEng, "Number of arcs to node", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szNumberOfArcsToNodeCat, "Nombre d'arcs al node", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szNumberOfArcsToNodeSpa, "Numero de arcos al nodo", MM_MAX_IDENTIFIER_SIZE); *(unsigned char *)&szNumberOfArcsToNodeSpa[1] = MM_u_WITH_ACUTE; CPLStrlcpy(szNodeTypeEng, "Node type", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szNodeTypeCat, "Tipus de node", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szNodeTypeSpa, "Tipo de nodo", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szPerimeterOfThePolygonEng, "Perimeter of the polygon", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szPerimeterOfThePolygonCat, "Perimetre del poligon", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szPerimeterOfThePolygonSpa, "Perimetro del poligono", MM_MAX_IDENTIFIER_SIZE); *(unsigned char *)&szPerimeterOfThePolygonCat[3] = MM_i_WITH_ACUTE; *(unsigned char *)&szPerimeterOfThePolygonSpa[3] = MM_i_WITH_ACUTE; *(unsigned char *)&szPerimeterOfThePolygonCat[17] = MM_i_WITH_ACUTE; *(unsigned char *)&szPerimeterOfThePolygonSpa[17] = MM_i_WITH_ACUTE; CPLStrlcpy(szAreaOfThePolygonEng, "Area of the polygon", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szAreaOfThePolygonCat, "Area del poligon", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szAreaOfThePolygonSpa, "Area del poligono", MM_MAX_IDENTIFIER_SIZE); *(unsigned char *)&szAreaOfThePolygonCat[0] = MM_A_WITH_GRAVE; *(unsigned char *)&szAreaOfThePolygonSpa[0] = MM_A_WITH_ACUTE; *(unsigned char *)&szAreaOfThePolygonCat[12] = MM_i_WITH_ACUTE; *(unsigned char *)&szAreaOfThePolygonSpa[12] = MM_i_WITH_ACUTE; CPLStrlcpy(szNumberOfArcsEng, "Number of arcs", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szNumberOfArcsCat, "Nombre d'arcs", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szNumberOfArcsSpa, "Numero de arcos", MM_MAX_IDENTIFIER_SIZE); *(unsigned char *)&szNumberOfArcsSpa[1] = MM_u_WITH_ACUTE; CPLStrlcpy(szNumberOfElementaryPolygonsEng, "Number of elementary polygons", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szNumberOfElementaryPolygonsCat, "Nombre de poligons elementals", MM_MAX_IDENTIFIER_SIZE); CPLStrlcpy(szNumberOfElementaryPolygonsSpa, "Numero de poligonos elementales", MM_MAX_IDENTIFIER_SIZE); *(unsigned char *)&szNumberOfElementaryPolygonsSpa[1] = MM_u_WITH_ACUTE; *(unsigned char *)&szNumberOfElementaryPolygonsCat[13] = MM_i_WITH_ACUTE; *(unsigned char *)&szNumberOfElementaryPolygonsSpa[13] = MM_i_WITH_ACUTE; } static MM_BOOLEAN MM_FillFieldDB_XP( struct MM_FIELD *camp, const char *FieldName, const char *FieldDescriptionEng, const char *FieldDescriptionCat, const char *FieldDescriptionSpa, char FieldType, MM_BYTES_PER_FIELD_TYPE_DBF BytesPerField, MM_BYTE DecimalsIfFloat) { char nom_temp[MM_MAX_LON_FIELD_NAME_DBF]; int retorn_valida_nom_camp; if (FieldName) { retorn_valida_nom_camp = MM_ISExtendedNameBD_XP(FieldName); if (retorn_valida_nom_camp == MM_DBF_NAME_NO_VALID) return FALSE; CPLStrlcpy(camp->FieldName, FieldName, MM_MAX_LON_FIELD_NAME_DBF); if (retorn_valida_nom_camp == MM_VALID_EXTENDED_DBF_NAME) { MM_CalculateBytesExtendedFieldName(camp); CPLStrlcpy(nom_temp, FieldName, MM_MAX_LON_FIELD_NAME_DBF); MM_ReturnValidClassicDBFFieldName(nom_temp); nom_temp[MM_MAX_LON_CLASSICAL_FIELD_NAME_DBF] = '\0'; CPLStrlcpy(camp->ClassicalDBFFieldName, nom_temp, MM_MAX_LON_CLASSICAL_FIELD_NAME_DBF); } } if (FieldDescriptionEng) CPLStrlcpy(camp->FieldDescription[MM_DEF_LANGUAGE], FieldDescriptionEng, sizeof(camp->FieldDescription[MM_DEF_LANGUAGE])); else strcpy(camp->FieldDescription[MM_DEF_LANGUAGE], "\0"); if (FieldDescriptionEng) CPLStrlcpy(camp->FieldDescription[MM_ENG_LANGUAGE], FieldDescriptionEng, sizeof(camp->FieldDescription[MM_ENG_LANGUAGE])); else strcpy(camp->FieldDescription[MM_ENG_LANGUAGE], "\0"); if (FieldDescriptionCat) CPLStrlcpy(camp->FieldDescription[MM_CAT_LANGUAGE], FieldDescriptionCat, sizeof(camp->FieldDescription[MM_CAT_LANGUAGE])); else strcpy(camp->FieldDescription[MM_CAT_LANGUAGE], "\0"); if (FieldDescriptionSpa) CPLStrlcpy(camp->FieldDescription[MM_SPA_LANGUAGE], FieldDescriptionSpa, sizeof(camp->FieldDescription[MM_SPA_LANGUAGE])); else strcpy(camp->FieldDescription[MM_SPA_LANGUAGE], "\0"); camp->FieldType = FieldType; camp->DecimalsIfFloat = DecimalsIfFloat; camp->BytesPerField = BytesPerField; return TRUE; } size_t MM_DefineFirstPolygonFieldsDB_XP(struct MM_DATA_BASE_XP *bd_xp, MM_BYTE n_perimeter_decimals, MM_BYTE n_area_decimals_decimals) { MM_EXT_DBF_N_FIELDS i_camp = 0; MM_FillFieldDB_XP( bd_xp->pField + i_camp, szMMNomCampIdGraficDefecte, szInternalGraphicIdentifierEng, szInternalGraphicIdentifierCat, szInternalGraphicIdentifierSpa, 'N', MM_MIN_WIDTH_ID_GRAFIC, 0); bd_xp->IdGraficField = 0; (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_ID_GRAFIC; i_camp++; MM_FillFieldDB_XP(bd_xp->pField + i_camp, szMMNomCampNVertexsDefecte, szNumberOfVerticesEng, szNumberOfVerticesCat, szNumberOfVerticesSpa, 'N', MM_MIN_WIDTH_N_VERTEXS, 0); (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_N_VERTEXS; i_camp++; MM_FillFieldDB_XP(bd_xp->pField + i_camp, szMMNomCampPerimetreDefecte, szPerimeterOfThePolygonEng, szPerimeterOfThePolygonCat, szPerimeterOfThePolygonSpa, 'N', MM_MIN_WIDTH_LONG, n_perimeter_decimals); (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_PERIMETRE; i_camp++; MM_FillFieldDB_XP(bd_xp->pField + i_camp, szMMNomCampAreaDefecte, szAreaOfThePolygonEng, szAreaOfThePolygonCat, szAreaOfThePolygonSpa, 'N', MM_MIN_WIDTH_AREA, n_area_decimals_decimals); (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_AREA; i_camp++; MM_FillFieldDB_XP(bd_xp->pField + i_camp, szMMNomCampNArcsDefecte, szNumberOfArcsEng, szNumberOfArcsCat, szNumberOfArcsSpa, 'N', MM_MIN_WIDTH_N_ARCS, 0); (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_N_ARCS; i_camp++; MM_FillFieldDB_XP( bd_xp->pField + i_camp, szMMNomCampNPoligonsDefecte, szNumberOfElementaryPolygonsEng, szNumberOfElementaryPolygonsCat, szNumberOfElementaryPolygonsSpa, 'N', MM_MIN_WIDTH_N_POLIG, 0); (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_N_POLIG; i_camp++; return i_camp; } size_t MM_DefineFirstArcFieldsDB_XP(struct MM_DATA_BASE_XP *bd_xp, MM_BYTE n_decimals) { MM_EXT_DBF_N_FIELDS i_camp; i_camp = 0; MM_FillFieldDB_XP( bd_xp->pField + i_camp, szMMNomCampIdGraficDefecte, szInternalGraphicIdentifierEng, szInternalGraphicIdentifierCat, szInternalGraphicIdentifierSpa, 'N', MM_MIN_WIDTH_ID_GRAFIC, 0); bd_xp->IdGraficField = 0; (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_ID_GRAFIC; i_camp++; MM_FillFieldDB_XP(bd_xp->pField + i_camp, szMMNomCampNVertexsDefecte, szNumberOfVerticesEng, szNumberOfVerticesCat, szNumberOfVerticesSpa, 'N', MM_MIN_WIDTH_N_VERTEXS, 0); (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_N_VERTEXS; i_camp++; MM_FillFieldDB_XP(bd_xp->pField + i_camp, szMMNomCampLongitudArcDefecte, szLengthOfAarcEng, szLengthOfAarcCat, szLengthOfAarcSpa, 'N', MM_MIN_WIDTH_LONG, n_decimals); (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_LONG_ARC; i_camp++; MM_FillFieldDB_XP(bd_xp->pField + i_camp, szMMNomCampNodeIniDefecte, szInitialNodeEng, szInitialNodeCat, szInitialNodeSpa, 'N', MM_MIN_WIDTH_INITIAL_NODE, 0); (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_NODE_INI; i_camp++; MM_FillFieldDB_XP(bd_xp->pField + i_camp, szMMNomCampNodeFiDefecte, szFinalNodeEng, szFinalNodeCat, szFinalNodeSpa, 'N', MM_MIN_WIDTH_FINAL_NODE, 0); (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_NODE_FI; i_camp++; return i_camp; } size_t MM_DefineFirstNodeFieldsDB_XP(struct MM_DATA_BASE_XP *bd_xp) { MM_EXT_DBF_N_FIELDS i_camp; i_camp = 0; MM_FillFieldDB_XP( bd_xp->pField + i_camp, szMMNomCampIdGraficDefecte, szInternalGraphicIdentifierEng, szInternalGraphicIdentifierCat, szInternalGraphicIdentifierSpa, 'N', MM_MIN_WIDTH_ID_GRAFIC, 0); bd_xp->IdGraficField = 0; (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_ID_GRAFIC; i_camp++; MM_FillFieldDB_XP(bd_xp->pField + i_camp, szMMNomCampArcsANodeDefecte, szNumberOfArcsToNodeEng, szNumberOfArcsToNodeCat, szNumberOfArcsToNodeSpa, 'N', MM_MIN_WIDTH_ARCS_TO_NODE, 0); (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_ARCS_A_NOD; i_camp++; MM_FillFieldDB_XP(bd_xp->pField + i_camp, szMMNomCampTipusNodeDefecte, szNodeTypeEng, szNodeTypeCat, szNodeTypeSpa, 'N', 1, 0); (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_TIPUS_NODE; i_camp++; return i_camp; } size_t MM_DefineFirstPointFieldsDB_XP(struct MM_DATA_BASE_XP *bd_xp) { size_t i_camp = 0; MM_FillFieldDB_XP( bd_xp->pField + i_camp, szMMNomCampIdGraficDefecte, szInternalGraphicIdentifierEng, szInternalGraphicIdentifierCat, szInternalGraphicIdentifierSpa, 'N', MM_MIN_WIDTH_ID_GRAFIC, 0); bd_xp->IdGraficField = 0; (bd_xp->pField + i_camp)->GeoTopoTypeField = (MM_BYTE)MM_CAMP_ES_ID_GRAFIC; i_camp++; return i_camp; } CPL_C_END // Necessary for compiling in GDAL project