/* -*- Mode: C++; tab-width: 4; indent-tabs-mode: nil; c-basic-offset: 4 -*- */ /* * This file is part of the LibreOffice project. * * This Source Code Form is subject to the terms of the Mozilla Public * License, v. 2.0. If a copy of the MPL was not distributed with this * file, You can obtain one at http://mozilla.org/MPL/2.0/. * * This file incorporates work covered by the following license notice: * * Licensed to the Apache Software Foundation (ASF) under one or more * contributor license agreements. See the NOTICE file distributed * with this work for additional information regarding copyright * ownership. The ASF licenses this file to you under the Apache * License, Version 2.0 (the "License"); you may not use this file * except in compliance with the License. You may obtain a copy of * the License at http://www.apache.org/licenses/LICENSE-2.0 . */ #if !defined WIN32_LEAN_AND_MEAN # define WIN32_LEAN_AND_MEAN #endif #include "windows.h" #include #include #include "rtl/ustring.hxx" #include "rtl/ustrbuf.hxx" #include "uno/sequence2.h" #include "typelib/typedescription.hxx" #include "cli_proxy.h" #include "cli_base.h" #include "cli_bridge.h" #using #undef VOID namespace sri = System::Runtime::InteropServices; namespace sr = System::Reflection; namespace st = System::Text; namespace ucss = unoidl::com::sun::star; namespace cli_uno { System::String^ mapUnoPolymorphicName(System::String^ unoName); OUString mapCliTypeName(System::String^ typeName); System::String^ mapCliPolymorphicName(System::String^ unoName); System::String^ mapPolymorphicName(System::String^ unoName, bool bCliToUno); inline std::unique_ptr< rtl_mem > seq_allocate( sal_Int32 nElements, sal_Int32 nSize ) { std::unique_ptr< rtl_mem > seq( rtl_mem::allocate( SAL_SEQUENCE_HEADER_SIZE + (nElements * nSize) ) ); uno_Sequence * p = (uno_Sequence *)seq.get(); p->nRefCount = 1; p->nElements = nElements; return seq; } System::Object^ Bridge::map_uno2cli(uno_Interface * pUnoI, typelib_InterfaceTypeDescription *pTD) const { System::Object^ retVal= nullptr; // get oid rtl_uString * pOid = 0; (*m_uno_env->getObjectIdentifier)( m_uno_env, &pOid, pUnoI ); OSL_ASSERT( 0 != pOid ); OUString oid(pOid, SAL_NO_ACQUIRE); // see if the interface was already mapped System::Type^ ifaceType= mapUnoType(reinterpret_cast(pTD)); System::String^ sOid= mapUnoString(oid.pData); System::Threading::Monitor::Enter( CliEnvHolder::g_cli_env ); try { retVal = CliEnvHolder::g_cli_env->getRegisteredInterface(sOid, ifaceType); if (retVal) { // There is already a registered object. It can either be a proxy // for the UNO object or a real cli object. In the first case we // tell the proxy that it shall also represent the current UNO // interface. If it already does that, then it does nothing if (srr::RemotingServices::IsTransparentProxy(retVal)) { UnoInterfaceProxy^ p = static_cast( srr::RemotingServices::GetRealProxy(retVal)); p->addUnoInterface(pUnoI, pTD); } } else { retVal = UnoInterfaceProxy::create( (Bridge *) this, pUnoI, pTD, oid ); } } __finally { System::Threading::Monitor::Exit( CliEnvHolder::g_cli_env ); } return retVal; } uno_Interface* Bridge::map_cli2uno(System::Object^ cliObj, typelib_TypeDescription *pTD) const { uno_Interface* retIface = NULL; // get oid from dot net environment System::String^ ds_oid = CliEnvHolder::g_cli_env->getObjectIdentifier( cliObj); OUString ousOid = mapCliString(ds_oid); // look if interface is already mapped m_uno_env->getRegisteredInterface(m_uno_env, (void**) &retIface, ousOid.pData, (typelib_InterfaceTypeDescription*) pTD); if ( ! retIface) { System::Threading::Monitor::Enter(Cli_environment::typeid); try { m_uno_env->getRegisteredInterface(m_uno_env, (void**) &retIface, ousOid.pData, (typelib_InterfaceTypeDescription*) pTD); if ( ! retIface) { retIface = CliProxy::create((Bridge*)this, cliObj, pTD, ousOid); } } __finally { System::Threading::Monitor::Exit(Cli_environment::typeid); } } return retIface; } inline System::Type^ loadCliType(rtl_uString * unoName) { return loadCliType(mapUnoTypeName(unoName)); } System::Type^ loadCliType(System::String ^ unoName) { System::Type^ retVal= nullptr; try { //If unoName denotes a polymorphic type, e.g com.sun.star.beans.Defaulted //then we remove the type list, otherwise the type could not be loaded. bool bIsPolymorphic = false; System::String ^ loadName = unoName; int index = unoName->IndexOf('<'); if (index != -1) { loadName = unoName->Substring(0, index); bIsPolymorphic = true; } System::AppDomain^ currentDomain = System::AppDomain::CurrentDomain; cli::array^ assems = currentDomain->GetAssemblies(); for (int i = 0; i < assems->Length; i++) { retVal = assems[i]->GetType(loadName, false); if (retVal) break; } if (retVal == nullptr) { System::String ^ msg = gcnew System::String("A type could not be loaded: "); msg = System::String::Concat(msg, loadName); throw BridgeRuntimeError(mapCliString(msg)); } if (bIsPolymorphic) { retVal = uno::PolymorphicType::GetType(retVal, unoName); } } catch( System::Exception ^ e) { OUString ouMessage(mapCliString(e->Message)); throw BridgeRuntimeError(ouMessage); } return retVal; } System::Type^ mapUnoType(typelib_TypeDescription const * pTD) { return mapUnoType(pTD->pWeakRef); } System::Type^ mapUnoType(typelib_TypeDescriptionReference const * pTD) { System::Type ^ retVal = nullptr; switch (pTD->eTypeClass) { case typelib_TypeClass_VOID: retVal= void::typeid; break; case typelib_TypeClass_CHAR: retVal= System::Char::typeid; break; case typelib_TypeClass_BOOLEAN: retVal= System::Boolean::typeid; break; case typelib_TypeClass_BYTE: retVal= System::Byte::typeid; break; case typelib_TypeClass_SHORT: retVal= System::Int16::typeid; break; case typelib_TypeClass_UNSIGNED_SHORT: retVal= System::UInt16::typeid; break; case typelib_TypeClass_LONG: retVal= System::Int32::typeid; break; case typelib_TypeClass_UNSIGNED_LONG: retVal= System::UInt32::typeid; break; case typelib_TypeClass_HYPER: retVal= System::Int64::typeid; break; case typelib_TypeClass_UNSIGNED_HYPER: retVal= System::UInt64::typeid; break; case typelib_TypeClass_FLOAT: retVal= System::Single::typeid; break; case typelib_TypeClass_DOUBLE: retVal= System::Double::typeid; break; case typelib_TypeClass_STRING: retVal= System::String::typeid; break; case typelib_TypeClass_TYPE: retVal= System::Type::typeid; break; case typelib_TypeClass_ANY: retVal= uno::Any::typeid; break; case typelib_TypeClass_ENUM: case typelib_TypeClass_STRUCT: case typelib_TypeClass_EXCEPTION: retVal= loadCliType(pTD->pTypeName); break; case typelib_TypeClass_INTERFACE: { //special handling for XInterface, since it does not exist in cli. OUString usXInterface("com.sun.star.uno.XInterface"); if (usXInterface.equals(pTD->pTypeName)) retVal= System::Object::typeid; else retVal= loadCliType(pTD->pTypeName); break; } case typelib_TypeClass_SEQUENCE: { css::uno::TypeDescription seqType( const_cast(pTD)); typelib_TypeDescriptionReference* pElementTDRef= reinterpret_cast(seqType.get())->pType; switch (pElementTDRef->eTypeClass) { case typelib_TypeClass_CHAR: retVal= System::Type::GetType(const_cast(Constants::sArChar)); break; case typelib_TypeClass_BOOLEAN: retVal= System::Type::GetType(const_cast(Constants::sArBoolean)); break; case typelib_TypeClass_BYTE: retVal= System::Type::GetType(const_cast(Constants::sArByte)); break; case typelib_TypeClass_SHORT: retVal= System::Type::GetType(const_cast(Constants::sArInt16)); break; case typelib_TypeClass_UNSIGNED_SHORT: retVal= System::Type::GetType(const_cast(Constants::sArUInt16)); break; case typelib_TypeClass_LONG: retVal= System::Type::GetType(const_cast(Constants::sArInt32)); break; case typelib_TypeClass_UNSIGNED_LONG: retVal= System::Type::GetType(const_cast(Constants::sArUInt32)); break; case typelib_TypeClass_HYPER: retVal= System::Type::GetType(const_cast(Constants::sArInt64)); break; case typelib_TypeClass_UNSIGNED_HYPER: retVal= System::Type::GetType(const_cast(Constants::sArUInt64)); break; case typelib_TypeClass_FLOAT: retVal= System::Type::GetType(const_cast(Constants::sArSingle)); break; case typelib_TypeClass_DOUBLE: retVal= System::Type::GetType(const_cast(Constants::sArDouble)); break; case typelib_TypeClass_STRING: retVal= System::Type::GetType(const_cast(Constants::sArString)); break; case typelib_TypeClass_TYPE: retVal= System::Type::GetType(const_cast(Constants::sArType)); break; case typelib_TypeClass_ANY: case typelib_TypeClass_ENUM: case typelib_TypeClass_EXCEPTION: case typelib_TypeClass_STRUCT: case typelib_TypeClass_INTERFACE: case typelib_TypeClass_SEQUENCE: { retVal= loadCliType(pTD->pTypeName); break; } default: //All cases should be handled by the case statements above OSL_ASSERT(0); break; } break; } default: OSL_ASSERT(false); break; } return retVal; } /** Returns an acquired td. */ typelib_TypeDescriptionReference* mapCliType(System::Type^ cliType) { typelib_TypeDescriptionReference* retVal= NULL; if (cliType == nullptr) { retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_VOID ); typelib_typedescriptionreference_acquire( retVal ); return retVal; } //check for Enum first, //because otherwise case System::TypeCode::Int32 applies if (cliType->IsEnum) { OUString usTypeName= mapCliTypeName(cliType->FullName); css::uno::Type unoType(css::uno::TypeClass_ENUM, usTypeName); retVal= unoType.getTypeLibType(); typelib_typedescriptionreference_acquire(retVal); } else { switch (System::Type::GetTypeCode(cliType)) { case System::TypeCode::Boolean: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_BOOLEAN ); typelib_typedescriptionreference_acquire( retVal ); break; case System::TypeCode::Char: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_CHAR ); typelib_typedescriptionreference_acquire( retVal ); break; case System::TypeCode::Byte: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_BYTE ); typelib_typedescriptionreference_acquire( retVal ); break; case System::TypeCode::Int16: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_SHORT ); typelib_typedescriptionreference_acquire( retVal ); break; case System::TypeCode::Int32: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_LONG ); typelib_typedescriptionreference_acquire( retVal ); break; case System::TypeCode::Int64: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_HYPER ); typelib_typedescriptionreference_acquire( retVal ); break; case System::TypeCode::UInt16: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_UNSIGNED_SHORT ); typelib_typedescriptionreference_acquire( retVal ); break; case System::TypeCode::UInt32: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_UNSIGNED_LONG ); typelib_typedescriptionreference_acquire( retVal ); break; case System::TypeCode::UInt64: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_UNSIGNED_HYPER ); typelib_typedescriptionreference_acquire( retVal ); break; case System::TypeCode::Single: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_FLOAT ); typelib_typedescriptionreference_acquire( retVal ); break; case System::TypeCode::Double: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_DOUBLE ); typelib_typedescriptionreference_acquire( retVal ); break; case System::TypeCode::String: retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_STRING ); typelib_typedescriptionreference_acquire( retVal ); break; default: break; } } if (retVal == NULL) { System::String^ cliTypeName= cliType->FullName; // Void if (const_cast(Constants::sVoid)->Equals( cliTypeName)) { retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_VOID ); typelib_typedescriptionreference_acquire( retVal ); } // Type else if (const_cast(Constants::sType)->Equals( cliTypeName)) { retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_TYPE ); typelib_typedescriptionreference_acquire( retVal ); } // Any else if (const_cast(Constants::sAny)->Equals( cliTypeName)) { retVal = * typelib_static_type_getByTypeClass( typelib_TypeClass_ANY ); typelib_typedescriptionreference_acquire( retVal ); } //struct, interfaces, sequences else { OUString usTypeName; uno::PolymorphicType ^ poly = dynamic_cast(cliType); if (poly != nullptr) usTypeName = mapCliTypeName( poly->PolymorphicName); else usTypeName = mapCliTypeName(cliTypeName); typelib_TypeDescription* td = NULL; typelib_typedescription_getByName(&td, usTypeName.pData); if (td) { retVal = td->pWeakRef; typelib_typedescriptionreference_acquire(retVal); typelib_typedescription_release(td); } } } if (retVal == NULL) { throw BridgeRuntimeError("[cli_uno bridge] mapCliType():could not map type: " + mapCliString(cliType->FullName)); } return retVal; } /** Otherwise a leading "unoidl." is removed. */ System::String^ mapUnoTypeName(rtl_uString const * typeName) { OUString usUnoName( const_cast< rtl_uString * >( typeName ) ); st::StringBuilder^ buf= gcnew st::StringBuilder(); //determine if the type is a sequence and its dimensions int dims= 0; if (usUnoName[0] == '[') { sal_Int32 index= 1; while (true) { if (usUnoName[index++] == ']') dims++; if (usUnoName[index++] != '[') break; } usUnoName = usUnoName.copy(index - 1); } System::String ^ sUnoName = mapUnoString(usUnoName.pData); if (sUnoName->Equals(const_cast(Constants::usBool))) buf->Append(const_cast(Constants::sBoolean)); else if (sUnoName->Equals(const_cast(Constants::usChar))) buf->Append(const_cast(Constants::sChar)); else if (sUnoName->Equals(const_cast(Constants::usByte))) buf->Append(const_cast(Constants::sByte)); else if (sUnoName->Equals(const_cast(Constants::usShort))) buf->Append(const_cast(Constants::sInt16)); else if (sUnoName->Equals(const_cast(Constants::usUShort))) buf->Append(const_cast(Constants::sUInt16)); else if (sUnoName->Equals(const_cast(Constants::usLong))) buf->Append(const_cast(Constants::sInt32)); else if (sUnoName->Equals(const_cast(Constants::usULong))) buf->Append(const_cast(Constants::sUInt32)); else if (sUnoName->Equals(const_cast(Constants::usHyper))) buf->Append(const_cast(Constants::sInt64)); else if (sUnoName->Equals(const_cast(Constants::usUHyper))) buf->Append(const_cast(Constants::sUInt64)); else if (sUnoName->Equals(const_cast(Constants::usFloat))) buf->Append(const_cast(Constants::sSingle)); else if (sUnoName->Equals(const_cast(Constants::usDouble))) buf->Append(const_cast(Constants::sDouble)); else if (sUnoName->Equals(const_cast(Constants::usString))) buf->Append(const_cast(Constants::sString)); else if (sUnoName->Equals(const_cast(Constants::usVoid))) buf->Append(const_cast(Constants::sVoid)); else if (sUnoName->Equals(const_cast(Constants::usType))) buf->Append(const_cast(Constants::sType)); else if (sUnoName->Equals(const_cast(Constants::usXInterface))) buf->Append(const_cast(Constants::sObject)); else if (sUnoName->Equals(const_cast(Constants::usAny))) { buf->Append(const_cast(Constants::sAny)); } else { //put "unoidl." at the beginning buf->Append(const_cast(Constants::sUnoidl)); //for polymorphic struct types remove the brackets, e.g mystruct -> mystruct System::String ^ sName = mapUnoPolymorphicName(sUnoName); buf->Append(sName); } // append [] for (;dims--;) buf->Append(const_cast(Constants::sBrackets)); return buf->ToString(); } /** For example, there is a uno type com.sun.star.Foo. The values in the type list are uno types and are replaced by cli types, such as System.Char, System.Int32, etc. The prefix unoidl is not added. */ inline System::String^ mapUnoPolymorphicName(System::String^ unoName) { return mapPolymorphicName(unoName, false); } /** For example, there is a type name such as com.sun.star.Foo. The values in the type list are CLI types and are replaced by uno types, such as char, long, etc. The prefix unoidl remains. */ inline System::String^ mapCliPolymorphicName(System::String^ unoName) { return mapPolymorphicName(unoName, true); } System::String^ mapPolymorphicName(System::String^ unoName, bool bCliToUno) { int index = unoName->IndexOf('<'); if (index == -1) return unoName; System::Text::StringBuilder ^ builder = gcnew System::Text::StringBuilder(256); builder->Append(unoName->Substring(0, index +1 )); //Find the first occurrence of ',' //If the parameter is a polymorphic struct then we need to ignore everything //between the brackets because it can also contain commas //get the type list within < and > int endIndex = unoName->Length - 1; index++; int cur = index; int countParams = 0; while (cur <= endIndex) { System::Char c = unoName[cur]; if (c == ',' || c == '>') { //insert a comma if needed if (countParams != 0) builder->Append(","); countParams++; System::String ^ sParam = unoName->Substring(index, cur - index); //skip the comma cur++; //the index to the beginning of the next param index = cur; if (bCliToUno) { builder->Append(mapCliTypeName(sParam).getStr()); } else { OUString s = mapCliString(sParam); builder->Append(mapUnoTypeName(s.pData)); } } else if (c == '<') { cur++; //continue until the matching '>' int numNested = 0; for (;;cur++) { System::Char curChar = unoName[cur]; if (curChar == '<') { numNested ++; } else if (curChar == '>') { if (numNested > 0) numNested--; else break; } } } cur++; } builder->Append((System::Char) '>'); return builder->ToString(); } OUString mapCliTypeName(System::String^ typeName) { int dims= 0; // Array? determine the "rank" (number of "[]") // move from the rightmost end to the left, for example // unoidl.PolymorphicStruct[] // has only a "dimension" of 1 int cur = typeName->Length - 1; bool bRightBracket = false; while (cur >= 0) { System::Char c = typeName[cur]; if (c == ']') { bRightBracket = true; } else if (c == '[') { if (!bRightBracket) throw BridgeRuntimeError( "Typename is wrong. No matching brackets for sequence. Name is: " + mapCliString(typeName)); bRightBracket = false; dims ++; } else { if (bRightBracket) throw BridgeRuntimeError( "Typename is wrong. No matching brackets for sequence. Name is: " + mapCliString(typeName)); break; } cur--; } if (bRightBracket || cur < 0) throw BridgeRuntimeError( "Typename is wrong. " + mapCliString(typeName)); typeName = typeName->Substring(0, cur + 1); System::Text::StringBuilder ^ buf = gcnew System::Text::StringBuilder(512); //Put the "[]" at the beginning of the uno type name for (;dims--;) buf->Append(const_cast(Constants::usBrackets)); if (typeName->Equals(const_cast(Constants::sBoolean))) buf->Append(const_cast(Constants::usBool)); else if (typeName->Equals(const_cast(Constants::sChar))) buf->Append(const_cast(Constants::usChar)); else if (typeName->Equals(const_cast(Constants::sByte))) buf->Append(const_cast(Constants::usByte)); else if (typeName->Equals(const_cast(Constants::sInt16))) buf->Append(const_cast(Constants::usShort)); else if (typeName->Equals(const_cast(Constants::sUInt16))) buf->Append(const_cast(Constants::usUShort)); else if (typeName->Equals(const_cast(Constants::sInt32))) buf->Append(const_cast(Constants::usLong)); else if (typeName->Equals(const_cast(Constants::sUInt32))) buf->Append(const_cast(Constants::usULong)); else if (typeName->Equals(const_cast(Constants::sInt64))) buf->Append(const_cast(Constants::usHyper)); else if (typeName->Equals(const_cast(Constants::sUInt64))) buf->Append(const_cast(Constants::usUHyper)); else if (typeName->Equals(const_cast(Constants::sSingle))) buf->Append(const_cast(Constants::usFloat)); else if (typeName->Equals(const_cast(Constants::sDouble))) buf->Append(const_cast(Constants::usDouble)); else if (typeName->Equals(const_cast(Constants::sString))) buf->Append(const_cast(Constants::usString)); else if (typeName->Equals(const_cast(Constants::sVoid))) buf->Append(const_cast(Constants::usVoid)); else if (typeName->Equals(const_cast(Constants::sType))) buf->Append(const_cast(Constants::usType)); else if (typeName->Equals(const_cast(Constants::sObject))) buf->Append(const_cast(Constants::usXInterface)); else if (typeName->Equals(const_cast(Constants::sAny))) buf->Append(const_cast(Constants::usAny)); else { System::String ^ sName = mapCliPolymorphicName(typeName); int i= sName->IndexOf(L'.'); buf->Append(sName->Substring(i + 1)); } return mapCliString(buf->ToString()); } /** Maps uno types to dot net types. * If uno_data is null then the type description is converted to System::Type */ inline System::String^ mapUnoString( rtl_uString const * data) { OSL_ASSERT(data); return gcnew System::String((__wchar_t*) data->buffer, 0, data->length); } OUString mapCliString(System::String ^ data) { if (data != nullptr) { static_assert(sizeof(wchar_t) == sizeof(sal_Unicode), "char mismatch"); pin_ptr pdata= PtrToStringChars(data); return OUString( reinterpret_cast(pdata), const_cast(data)->Length); } else { return OUString(); } } // ToDo convert cli types to expected types, e.g a long to a short where the uno type // is a sal_Int16. This could be necessary if a scripting language (typeless) is used // @param assign the uno_data has to be destructed (in/out args) void Bridge::map_to_uno(void * uno_data, System::Object^ cli_data, typelib_TypeDescriptionReference * type, bool assign) const { try{ switch (type->eTypeClass) { case typelib_TypeClass_VOID: break; case typelib_TypeClass_CHAR: { System::Char aChar= *safe_cast(cli_data); *(sal_Unicode*) uno_data= aChar; break; } case typelib_TypeClass_BOOLEAN: { System::Boolean aBool= *safe_cast(cli_data); *(sal_Bool*)uno_data= aBool == true ? sal_True : sal_False; break; } case typelib_TypeClass_BYTE: { System::Byte aByte= *safe_cast(cli_data); *(sal_Int8*) uno_data= aByte; break; } case typelib_TypeClass_SHORT: { System::Int16 aShort= *safe_cast(cli_data); *(sal_Int16*) uno_data= aShort; break; } case typelib_TypeClass_UNSIGNED_SHORT: { System::UInt16 aUShort= *safe_cast(cli_data); *(sal_uInt16*) uno_data= aUShort; break; } case typelib_TypeClass_LONG: { System::Int32 aLong= *safe_cast(cli_data); *(sal_Int32*) uno_data= aLong; break; } case typelib_TypeClass_UNSIGNED_LONG: { System::UInt32 aULong= *safe_cast(cli_data); *(sal_uInt32*) uno_data= aULong; break; } case typelib_TypeClass_HYPER: { System::Int64 aHyper= *safe_cast(cli_data); *(sal_Int64*) uno_data= aHyper; break; } case typelib_TypeClass_UNSIGNED_HYPER: { System::UInt64 aLong= *safe_cast(cli_data); *(sal_uInt64*) uno_data= aLong; break; } case typelib_TypeClass_FLOAT: { System::Single aFloat= *safe_cast(cli_data); *(float*) uno_data= aFloat; break; } case typelib_TypeClass_DOUBLE: { System::Double aDouble= *safe_cast(cli_data); *(double*) uno_data= aDouble; break; } case typelib_TypeClass_STRING: { if (assign && *(rtl_uString**) uno_data) rtl_uString_release(*(rtl_uString**) uno_data); *(rtl_uString **)uno_data = 0; if (cli_data == nullptr) { rtl_uString_new((rtl_uString**) uno_data); } else { System::String ^s= safe_cast(cli_data); pin_ptr pdata= PtrToStringChars(s); rtl_uString_newFromStr_WithLength( reinterpret_cast(uno_data), reinterpret_cast(pdata), s->Length); } break; } case typelib_TypeClass_TYPE: { typelib_TypeDescriptionReference* td= mapCliType(safe_cast( cli_data)); if (assign) { typelib_typedescriptionreference_release( *(typelib_TypeDescriptionReference **)uno_data ); } *(typelib_TypeDescriptionReference **)uno_data = td; break; } case typelib_TypeClass_ANY: { uno_Any * pAny = (uno_Any *)uno_data; if (cli_data == nullptr) // null-ref or uninitialized any maps to empty any { if (assign) uno_any_destruct( pAny, 0 ); uno_any_construct( pAny, 0, 0, 0 ); break; } uno::Any aAny= *safe_cast(cli_data); css::uno::Type value_td( mapCliType(aAny.Type), SAL_NO_ACQUIRE); if (assign) uno_any_destruct( pAny, 0 ); try { switch (value_td.getTypeClass()) { case css::uno::TypeClass_VOID: pAny->pData = &pAny->pReserved; break; case css::uno::TypeClass_CHAR: pAny->pData = &pAny->pReserved; *(sal_Unicode*) &pAny->pReserved = *safe_cast(aAny.Value); break; case css::uno::TypeClass_BOOLEAN: pAny->pData = &pAny->pReserved; *(sal_Bool *) &pAny->pReserved = *safe_cast(aAny.Value); break; case css::uno::TypeClass_BYTE: pAny->pData = &pAny->pReserved; *(sal_Int8*) &pAny->pReserved = *safe_cast(aAny.Value); break; case css::uno::TypeClass_SHORT: pAny->pData = &pAny->pReserved; *(sal_Int16*) &pAny->pReserved = *safe_cast(aAny.Value); break; case css::uno::TypeClass_UNSIGNED_SHORT: pAny->pData = &pAny->pReserved; *(sal_uInt16*) &pAny->pReserved = *safe_cast(aAny.Value); break; case css::uno::TypeClass_LONG: pAny->pData = &pAny->pReserved; *(sal_Int32*) &pAny->pReserved = *safe_cast(aAny.Value); break; case css::uno::TypeClass_UNSIGNED_LONG: pAny->pData = &pAny->pReserved; *(sal_uInt32*) &pAny->pReserved = *safe_cast(aAny.Value); break; case css::uno::TypeClass_HYPER: if (sizeof (sal_Int64) <= sizeof (void *)) { pAny->pData = &pAny->pReserved; *(sal_Int64*) &pAny->pReserved = *safe_cast(aAny.Value); } else { std::unique_ptr< rtl_mem > mem( rtl_mem::allocate( sizeof (sal_Int64) ) ); *(sal_Int64 *) mem.get()= *safe_cast(aAny.Value); pAny->pData = mem.release(); } break; case css::uno::TypeClass_UNSIGNED_HYPER: if (sizeof (sal_uInt64) <= sizeof (void *)) { pAny->pData = &pAny->pReserved; *(sal_uInt64*) &pAny->pReserved = *safe_cast(aAny.Value); } else { std::unique_ptr< rtl_mem > mem( rtl_mem::allocate( sizeof (sal_uInt64) ) ); *(sal_uInt64 *) mem.get()= *safe_cast(aAny.Value); pAny->pData = mem.release(); } break; case css::uno::TypeClass_FLOAT: if (sizeof (float) <= sizeof (void *)) { pAny->pData = &pAny->pReserved; *(float*) &pAny->pReserved = *safe_cast(aAny.Value); } else { std::unique_ptr< rtl_mem > mem( rtl_mem::allocate( sizeof (float) ) ); *(float*) mem.get() = *safe_cast(aAny.Value); pAny->pData = mem.release(); } break; case css::uno::TypeClass_DOUBLE: if (sizeof (double) <= sizeof (void *)) { pAny->pData = &pAny->pReserved; *(double*) &pAny->pReserved= *safe_cast(aAny.Value); } else { std::unique_ptr< rtl_mem > mem( rtl_mem::allocate( sizeof (double) ) ); *(double*) mem.get()= *safe_cast(aAny.Value); pAny->pData= mem.release(); } break; case css::uno::TypeClass_STRING: // anies often contain strings; copy string directly { pAny->pData= &pAny->pReserved; OUString _s = mapCliString(static_cast(aAny.Value)); pAny->pReserved= _s.pData; rtl_uString_acquire(_s.pData); break; } case css::uno::TypeClass_TYPE: case css::uno::TypeClass_ENUM: //ToDo copy enum direct case css::uno::TypeClass_SEQUENCE: case css::uno::TypeClass_INTERFACE: pAny->pData = &pAny->pReserved; pAny->pReserved = 0; map_to_uno( &pAny->pReserved, aAny.Value, value_td.getTypeLibType(), false /* no assign */); break; case css::uno::TypeClass_STRUCT: case css::uno::TypeClass_EXCEPTION: { css::uno::Type anyType(value_td); typelib_TypeDescription* td= NULL; anyType.getDescription(&td); std::unique_ptr< rtl_mem > mem(rtl_mem::allocate(td->nSize)); typelib_typedescription_release(td); map_to_uno( mem.get(), aAny.Value, value_td.getTypeLibType(), false /* no assign */); pAny->pData = mem.release(); break; } default: { throw BridgeRuntimeError("[map_to_uno():" + value_td.getTypeName() + "] unsupported value type of any!"); } } } catch(System::InvalidCastException^ ) { // ToDo check this if (assign) uno_any_construct( pAny, 0, 0, 0 ); // restore some valid any OUString str = "[map_to_uno():Any" + value_td.getTypeName() + "]The Any type " + value_td.getTypeName() + " does not correspond to its value type: "; if(aAny.Value != nullptr) { css::uno::Type td(mapCliType(aAny.Value->GetType()), SAL_NO_ACQUIRE); str += td.getTypeName(); } if (assign) uno_any_construct( pAny, 0, 0, 0 ); // restore some valid any throw BridgeRuntimeError(str); } catch (BridgeRuntimeError& ) { if (assign) uno_any_construct( pAny, 0, 0, 0 ); // restore some valid any throw; } catch (...) { if (assign) uno_any_construct( pAny, 0, 0, 0 ); // restore some valid any throw; } pAny->pType = value_td.getTypeLibType(); typelib_typedescriptionreference_acquire(pAny->pType); break; } case typelib_TypeClass_ENUM: { // InvalidCastException is caught at the end of this method System::Int32 aEnum= System::Convert::ToInt32((cli_data)); *(sal_Int32*) uno_data = aEnum; break; } case typelib_TypeClass_STRUCT: case typelib_TypeClass_EXCEPTION: { css::uno::TypeDescription td(type); typelib_CompoundTypeDescription * comp_td = (typelib_CompoundTypeDescription*) td.get(); typelib_StructTypeDescription * struct_td = NULL; if (type->eTypeClass == typelib_TypeClass_STRUCT) struct_td = (typelib_StructTypeDescription*) td.get(); if ( ! ((typelib_TypeDescription*) comp_td)->bComplete) ::typelib_typedescription_complete( (typelib_TypeDescription**) & comp_td ); sal_Int32 nMembers = comp_td->nMembers; boolean bException= false; System::Type^ cliType = nullptr; if (cli_data) cliType = cli_data->GetType(); if (0 != comp_td->pBaseTypeDescription) { map_to_uno( uno_data, cli_data, ((typelib_TypeDescription *)comp_td->pBaseTypeDescription)->pWeakRef, assign); } sal_Int32 nPos = 0; try { OUString usUnoException("com.sun.star.uno.Exception"); for (; nPos < nMembers; ++nPos) { typelib_TypeDescriptionReference * member_type= comp_td->ppTypeRefs[nPos]; System::Object^ val= nullptr; if (cli_data != nullptr) { sr::FieldInfo^ aField= cliType->GetField( mapUnoString(comp_td->ppMemberNames[nPos])); // special case for Exception.Message property // The com.sun.star.uno.Exception.Message field is mapped to the // System.Exception property. Type.GetField("Message") returns null if ( ! aField && usUnoException.equals(td.get()->pTypeName)) {// get Exception.Message property OUString usMessageMember("Message"); if (usMessageMember.equals(comp_td->ppMemberNames[nPos])) { sr::PropertyInfo^ pi= cliType->GetProperty( mapUnoString(comp_td->ppMemberNames[nPos])); val= pi->GetValue(cli_data, nullptr); } else { throw BridgeRuntimeError("[map_to_uno(): Member: " + OUString::unacquired(&comp_td->ppMemberNames[nPos])); } } else { val= aField->GetValue(cli_data); } } void * p = (char *) uno_data + comp_td->pMemberOffsets[ nPos ]; //When using polymorphic structs then the parameterized members can be null. //Then we set a default value. bool bDefault = (struct_td != NULL && struct_td->pParameterizedTypes != NULL && struct_td->pParameterizedTypes[nPos] == sal_True && val == nullptr) || cli_data == nullptr; switch (member_type->eTypeClass) { case typelib_TypeClass_CHAR: if (bDefault) *(sal_Unicode*) p = 0; else *(sal_Unicode*) p = *safe_cast(val); break; case typelib_TypeClass_BOOLEAN: if (bDefault) *(sal_Bool*) p = sal_False; else *(sal_Bool*) p = *safe_cast(val); break; case typelib_TypeClass_BYTE: if (bDefault) *(sal_Int8*) p = 0; else *(sal_Int8*) p = *safe_cast(val); break; case typelib_TypeClass_SHORT: if (bDefault) *(sal_Int16*) p = 0; else *(sal_Int16*) p = *safe_cast(val); break; case typelib_TypeClass_UNSIGNED_SHORT: if (bDefault) *(sal_uInt16*) p = 0; else *(sal_uInt16*) p = *safe_cast(val); break; case typelib_TypeClass_LONG: if (bDefault) *(sal_Int32*) p = 0; else *(sal_Int32*) p = *safe_cast(val); break; case typelib_TypeClass_UNSIGNED_LONG: if (bDefault) *(sal_uInt32*) p = 0; else *(sal_uInt32*) p = *safe_cast(val); break; case typelib_TypeClass_HYPER: if (bDefault) *(sal_Int64*) p = 0; else *(sal_Int64*) p = *safe_cast(val); break; case typelib_TypeClass_UNSIGNED_HYPER: if (bDefault) *(sal_uInt64*) p = 0; else *(sal_uInt64*) p= *safe_cast(val); break; case typelib_TypeClass_FLOAT: if (bDefault) *(float*) p = 0.; else *(float*) p = *safe_cast(val); break; case typelib_TypeClass_DOUBLE: if (bDefault) *(double*) p = 0.; else *(double*) p = *safe_cast(val); break; default: { // ToDo enum, should be converted here map_to_uno(p, val, member_type, assign); break; } } } } catch (BridgeRuntimeError& e) { bException= true; OUString str = "[map_to_uno():"; if (cliType) { str += mapCliString(cliType->FullName) + "." + OUString::unacquired(&comp_td->ppMemberNames[nPos]) + " "; } str += e.m_message; throw BridgeRuntimeError(str); } catch (System::InvalidCastException^ ) { bException= true; OUString str = "[map_to_uno():"; if (cliType) { str += mapCliString(cliType->FullName) + "." + OUString::unacquired(&comp_td->ppMemberNames[nPos]); } str += "] Value has not the required type."; throw BridgeRuntimeError(str); } catch (...) { OSL_ASSERT(0); bException= true; throw; } __finally { if (bException && !assign) // if assign then caller cleans up { // cleanup the members which we have converted so far for ( sal_Int32 nCleanup = 0; nCleanup < nPos; ++nCleanup ) { uno_type_destructData( uno_data, comp_td->ppTypeRefs[ nCleanup ], 0 ); } if (0 != comp_td->pBaseTypeDescription) { uno_destructData( uno_data, (typelib_TypeDescription *)comp_td->pBaseTypeDescription, 0 ); } } } break; } case typelib_TypeClass_SEQUENCE: { TypeDescr td( type ); typelib_TypeDescriptionReference * element_type = ((typelib_IndirectTypeDescription *)td.get())->pType; std::unique_ptr< rtl_mem > seq; System::Array^ ar = nullptr; if (cli_data != nullptr) { ar = safe_cast(cli_data); sal_Int32 nElements = ar->GetLength(0); try { switch (element_type->eTypeClass) { case typelib_TypeClass_CHAR: seq = seq_allocate(nElements, sizeof (sal_Unicode)); sri::Marshal::Copy(safe_cast^>(cli_data), 0, IntPtr(& ((uno_Sequence*) seq.get())->elements), nElements); break; case typelib_TypeClass_BOOLEAN: seq = seq_allocate(nElements, sizeof (sal_Bool)); sri::Marshal::Copy(safe_cast^>(cli_data), 0, IntPtr(& ((uno_Sequence*) seq.get())->elements), nElements); break; case typelib_TypeClass_BYTE: seq = seq_allocate( nElements, sizeof (sal_Int8) ); sri::Marshal::Copy(safe_cast^>(cli_data), 0, IntPtr(& ((uno_Sequence*) seq.get())->elements), nElements); break; case typelib_TypeClass_SHORT: seq = seq_allocate(nElements, sizeof (sal_Int16)); sri::Marshal::Copy(safe_cast^>(cli_data), 0, IntPtr(& ((uno_Sequence*) seq.get())->elements), nElements); break; case typelib_TypeClass_UNSIGNED_SHORT: seq = seq_allocate( nElements, sizeof (sal_uInt16) ); sri::Marshal::Copy(dynamic_cast^>( safe_cast^>(cli_data)), 0, IntPtr(& ((uno_Sequence*) seq.get())->elements), nElements); break; case typelib_TypeClass_LONG: seq = seq_allocate(nElements, sizeof (sal_Int32)); sri::Marshal::Copy(safe_cast^>(cli_data), 0, IntPtr(& ((uno_Sequence*) seq.get())->elements), nElements); break; case typelib_TypeClass_UNSIGNED_LONG: seq = seq_allocate( nElements, sizeof (sal_uInt32) ); sri::Marshal::Copy(dynamic_cast^>( safe_cast^>(cli_data)), 0, IntPtr(& ((uno_Sequence*) seq.get())->elements), nElements); break; case typelib_TypeClass_HYPER: seq = seq_allocate(nElements, sizeof (sal_Int64)); sri::Marshal::Copy(safe_cast^>(cli_data), 0, IntPtr(& ((uno_Sequence*) seq.get())->elements), nElements); break; case typelib_TypeClass_UNSIGNED_HYPER: seq = seq_allocate(nElements, sizeof (sal_uInt64)); sri::Marshal::Copy(dynamic_cast^>( safe_cast^>(cli_data)), 0, IntPtr(& ((uno_Sequence*) seq.get())->elements), nElements); break; case typelib_TypeClass_FLOAT: seq = seq_allocate(nElements, sizeof (float)); sri::Marshal::Copy(safe_cast^>(cli_data), 0, IntPtr(& ((uno_Sequence*) seq.get())->elements), nElements); break; case typelib_TypeClass_DOUBLE: seq = seq_allocate(nElements, sizeof (double)); sri::Marshal::Copy(safe_cast^>(cli_data), 0, IntPtr(& ((uno_Sequence*) seq.get())->elements), nElements); break; case typelib_TypeClass_STRING: { seq = seq_allocate(nElements, sizeof (rtl_uString*)); cli::array^ arStr= safe_cast^>(cli_data); for (int i= 0; i < nElements; i++) { pin_ptr pdata= PtrToStringChars(arStr[i]); rtl_uString** pStr= & ((rtl_uString**) & ((uno_Sequence*) seq.get())->elements)[i]; *pStr= NULL; rtl_uString_newFromStr_WithLength( pStr, reinterpret_cast(pdata), arStr[i]->Length); } break; } case typelib_TypeClass_ENUM: seq = seq_allocate(nElements, sizeof (sal_Int32)); for (int i= 0; i < nElements; i++) { ((sal_Int32*) &((uno_Sequence*) seq.get())->elements)[i]= System::Convert::ToInt32(ar->GetValue(i)); } break; case typelib_TypeClass_TYPE: case typelib_TypeClass_ANY: case typelib_TypeClass_STRUCT: case typelib_TypeClass_EXCEPTION: case typelib_TypeClass_SEQUENCE: case typelib_TypeClass_INTERFACE: { TypeDescr element_td( element_type ); seq = seq_allocate( nElements, element_td.get()->nSize ); for (sal_Int32 nPos = 0; nPos < nElements; ++nPos) { try { void * p= ((uno_Sequence *) seq.get())->elements + (nPos * element_td.get()->nSize); System::Object^ elemData= safe_cast(cli_data)->GetValue(System::Int32(nPos)); map_to_uno( p, elemData, element_td.get()->pWeakRef, false /* no assign */); } catch (...) { // cleanup for ( sal_Int32 nCleanPos = 0; nCleanPos < nPos; ++nCleanPos ) { void * p = ((uno_Sequence *)seq.get())->elements + (nCleanPos * element_td.get()->nSize); uno_destructData( p, element_td.get(), 0 ); } throw; } } break; } default: { throw BridgeRuntimeError("[map_to_uno():" + OUString::unacquired( &type->pTypeName ) + "] unsupported sequence element type: " + OUString::unacquired( &element_type->pTypeName )); } } } catch (BridgeRuntimeError& e) { throw BridgeRuntimeError("[map_to_uno():" + OUString::unacquired( &type->pTypeName ) + "] conversion failed\n " + e.m_message); } catch (System::InvalidCastException^ ) { // Ok, checked throw BridgeRuntimeError("[map_to_uno():" + OUString::unacquired( &type->pTypeName) + "] could not convert sequence element type: " + OUString::unacquired( &element_type->pTypeName )); } catch (...) { OSL_ASSERT(0); throw; } __finally { if (assign) uno_destructData( uno_data, td.get(), 0 ); } } else { seq = seq_allocate(0, sizeof (sal_Int32)); } *(uno_Sequence **)uno_data = (uno_Sequence *)seq.release(); break; } case typelib_TypeClass_INTERFACE: { if (assign) { uno_Interface * p = *(uno_Interface **)uno_data; if (0 != p) (*p->release)( p ); } if (nullptr == cli_data) // null-ref { *(uno_Interface **)uno_data = 0; } else { TypeDescr td( type ); uno_Interface * pUnoI = map_cli2uno(cli_data, td.get()); *(uno_Interface **)uno_data = pUnoI; } break; } default: { //ToDo check throw BridgeRuntimeError("[map_to_uno():" + OUString::unacquired( &type->pTypeName ) + "] unsupported type!"); } } } // BridgeRuntimeError are allowed to be thrown catch (System::InvalidCastException^ ) { //ToDo check throw BridgeRuntimeError("[map_to_uno():" + OUString::unacquired( &type->pTypeName ) + "] could not convert type!"); } catch (System::NullReferenceException ^ e) { throw BridgeRuntimeError("[map_to_uno()] Illegal null reference passed!\n" + mapCliString(e->StackTrace)); } catch (BridgeRuntimeError& ) { throw; } catch (...) { OSL_ASSERT(0); throw; } } /** @param info The expected target type. Currently info is provided when this method is called to convert the in/out and out parameters of a call from cli to uno. Then info is always a byref type, e.g. "System.String&". info is used for Any and Enum conversion. @param bDontCreateObj false - a new object is created which holds the mapped uno value and is assigned to cli_data. true - cli_data already contains the newly constructed object. This is the case if a struct is converted then on the first call to map_to_cli the new object is created. If the struct inherits another struct then this function is called recursively while the newly created object is passed in cli_data. */ void Bridge::map_to_cli( System::Object^ *cli_data, void const * uno_data, typelib_TypeDescriptionReference * type, System::Type^ info, bool bDontCreateObj) const { switch (type->eTypeClass) { case typelib_TypeClass_CHAR: *cli_data= *(__wchar_t const*)uno_data; break; case typelib_TypeClass_BOOLEAN: *cli_data = (*(bool const*)uno_data) == sal_True; break; case typelib_TypeClass_BYTE: *cli_data = *(unsigned char const*) uno_data; break; case typelib_TypeClass_SHORT: *cli_data= *(short const*) uno_data; break; case typelib_TypeClass_UNSIGNED_SHORT: *cli_data= *(unsigned short const*) uno_data; break; case typelib_TypeClass_LONG: *cli_data= *(int const*) uno_data; break; case typelib_TypeClass_UNSIGNED_LONG: *cli_data= *(unsigned int const*) uno_data; break; case typelib_TypeClass_HYPER: *cli_data= *(__int64 const*) uno_data; break; case typelib_TypeClass_UNSIGNED_HYPER: *cli_data= *(unsigned __int64 const*) uno_data; break; case typelib_TypeClass_FLOAT: *cli_data= *(float const*) uno_data; break; case typelib_TypeClass_DOUBLE: *cli_data= *(double const*) uno_data; break; case typelib_TypeClass_STRING: { rtl_uString const* sVal= NULL; sVal= *(rtl_uString* const*) uno_data; *cli_data= gcnew System::String((__wchar_t*) sVal->buffer,0, sVal->length); break; } case typelib_TypeClass_TYPE: { *cli_data= mapUnoType( *(typelib_TypeDescriptionReference * const *)uno_data ); break; } case typelib_TypeClass_ANY: { uno_Any const * pAny = (uno_Any const *)uno_data; if (typelib_TypeClass_VOID != pAny->pType->eTypeClass) { System::Object^ objCli= nullptr; map_to_cli( &objCli, pAny->pData, pAny->pType, nullptr, false); uno::Any anyVal(mapUnoType(pAny->pType), objCli); *cli_data= anyVal; } else { // void any *cli_data= uno::Any::VOID; } break; } case typelib_TypeClass_ENUM: { if (info != nullptr) { OSL_ASSERT(info->IsByRef); info= info->GetElementType(); *cli_data= System::Enum::ToObject(info, *(System::Int32*) uno_data); } else *cli_data= System::Enum::ToObject( mapUnoType(type), *(System::Int32*) uno_data); break; } case typelib_TypeClass_STRUCT: case typelib_TypeClass_EXCEPTION: { TypeDescr td( type ); typelib_CompoundTypeDescription * comp_td = (typelib_CompoundTypeDescription *) td.get(); if ( ! ((typelib_TypeDescription*) comp_td)->bComplete) ::typelib_typedescription_complete( (typelib_TypeDescription**) & comp_td ); //create the type System::Type^ cliType= loadCliType(td.get()->pTypeName); //detect if we recursively convert inherited structures //If this point is reached because of a recursive call during covering a //struct then we must not create a new object rather we use the one in // cli_data argument. System::Object^ cliObj; if (bDontCreateObj) cliObj = *cli_data; // recursive call else { //Special handling for Exception conversion. We must call constructor System::Exception //to pass the message string if (ucss::uno::Exception::typeid->IsAssignableFrom(cliType)) { //We need to get the Message field. Therefore we must obtain the offset from //the typedescription. The base interface of all exceptions is //com::sun::star::uno::Exception which contains the message typelib_CompoundTypeDescription* pCTD = comp_td; while (pCTD->pBaseTypeDescription) pCTD = pCTD->pBaseTypeDescription; int nPos = -1; OUString usMessageMember("Message"); for (int i = 0; i < pCTD->nMembers; i ++) { if (usMessageMember.equals(pCTD->ppMemberNames[i])) { nPos = i; break; } } OSL_ASSERT (nPos != -1); int offset = pCTD->pMemberOffsets[nPos]; //With the offset within the exception we can get the message string System::String^ sMessage = mapUnoString(*(rtl_uString**) ((char*) uno_data + offset)); //We need to find a constructor for the exception that takes the message string //We assume that the first argument is the message string cli::array^ arCtorInfo = cliType->GetConstructors(); sr::ConstructorInfo^ ctorInfo = nullptr; int numCtors = arCtorInfo->Length; //Constructor must at least have 2 params for the base //unoidl.com.sun.star.uno.Exception (String, Object); cli::array^ arParamInfo; for (int i = 0; i < numCtors; i++) { arParamInfo = arCtorInfo[i]->GetParameters(); if (arParamInfo->Length < 2) continue; ctorInfo = arCtorInfo[i]; break; } OSL_ASSERT(arParamInfo[0]->ParameterType->Equals(System::String::typeid) && arParamInfo[1]->ParameterType->Equals(System::Object::typeid) && arParamInfo[0]->Position == 0 && arParamInfo[1]->Position == 1); //Prepare parameters for constructor int numArgs = arParamInfo->Length; cli::array^ args = gcnew cli::array(numArgs); //only initialize the first argument with the message args[0] = sMessage; cliObj = ctorInfo->Invoke(args); } else cliObj = System::Activator::CreateInstance(cliType); } sal_Int32 * pMemberOffsets = comp_td->pMemberOffsets; if (comp_td->pBaseTypeDescription) { //convert inherited struct //cliObj is passed inout (args in_param, out_param are true), hence the passed // cliObj is used by the callee instead of a newly created struct map_to_cli( &cliObj, uno_data, ((typelib_TypeDescription *)comp_td->pBaseTypeDescription)->pWeakRef, nullptr, true); } OUString usUnoException("com.sun.star.uno.Exception"); for (sal_Int32 nPos = comp_td->nMembers; nPos--; ) { typelib_TypeDescriptionReference * member_type = comp_td->ppTypeRefs[ nPos ]; System::String^ sMemberName= mapUnoString(comp_td->ppMemberNames[nPos]); sr::FieldInfo^ aField= cliType->GetField(sMemberName); // special case for Exception.Message. The field has already been // set while constructing cli object if ( ! aField && usUnoException.equals(td.get()->pTypeName)) { continue; } void const * p = (char const *)uno_data + pMemberOffsets[ nPos ]; switch (member_type->eTypeClass) { case typelib_TypeClass_CHAR: aField->SetValue(cliObj, *(System::Char*) p); break; case typelib_TypeClass_BOOLEAN: aField->SetValue(cliObj, *(System::Boolean*) p); break; case typelib_TypeClass_BYTE: aField->SetValue(cliObj, *(System::Byte*) p); break; case typelib_TypeClass_SHORT: aField->SetValue(cliObj, *(System::Int16*) p); break; case typelib_TypeClass_UNSIGNED_SHORT: aField->SetValue(cliObj, *(System::UInt16*) p); break; case typelib_TypeClass_LONG: aField->SetValue(cliObj, *(System::Int32*) p); break; case typelib_TypeClass_UNSIGNED_LONG: aField->SetValue(cliObj, *(System::UInt32*) p); break; case typelib_TypeClass_HYPER: aField->SetValue(cliObj, *(System::Int64*) p); break; case typelib_TypeClass_UNSIGNED_HYPER: aField->SetValue(cliObj, *(System::UInt64*) p); break; case typelib_TypeClass_FLOAT: aField->SetValue(cliObj, *(System::Single*) p); break; case typelib_TypeClass_DOUBLE: aField->SetValue(cliObj, *(System::Double*) p); break; default: { System::Object^ cli_val; map_to_cli( &cli_val, p, member_type, nullptr, false); aField->SetValue(cliObj, cli_val); break; } } } *cli_data= cliObj; break; } case typelib_TypeClass_SEQUENCE: { sal_Int32 nElements; uno_Sequence const * seq = 0; seq = *(uno_Sequence * const *)uno_data; nElements = seq->nElements; TypeDescr td( type ); typelib_TypeDescriptionReference * element_type = ((typelib_IndirectTypeDescription *)td.get())->pType; switch (element_type->eTypeClass) { case typelib_TypeClass_CHAR: { cli::array^ arChar= gcnew cli::array(nElements); sri::Marshal::Copy( IntPtr((void*) &seq->elements), arChar, 0, nElements); *cli_data= arChar; break; } case typelib_TypeClass_BOOLEAN: { cli::array^ arBool= gcnew cli::array(nElements); sri::Marshal::Copy( IntPtr((void*) &seq->elements), arBool, 0, nElements); *cli_data= dynamic_cast^>(arBool); break; } case typelib_TypeClass_BYTE: { cli::array^ arByte= gcnew cli::array(nElements); sri::Marshal::Copy( IntPtr((void*) &seq->elements), arByte, 0, nElements); *cli_data= arByte; break; } case typelib_TypeClass_SHORT: { cli::array^ arShort= gcnew cli::array(nElements); sri::Marshal::Copy( IntPtr((void*) &seq->elements), arShort, 0, nElements); *cli_data= arShort; break; } case typelib_TypeClass_UNSIGNED_SHORT: { cli::array^ arUInt16= gcnew cli::array(nElements); sri::Marshal::Copy( IntPtr((void*) &seq->elements), dynamic_cast^>(arUInt16), 0, nElements); *cli_data= arUInt16; break; } case typelib_TypeClass_LONG: { cli::array^ arInt32= gcnew cli::array(nElements); sri::Marshal::Copy( IntPtr((void*) &seq->elements), arInt32, 0, nElements); *cli_data= arInt32; break; } case typelib_TypeClass_UNSIGNED_LONG: { cli::array^ arUInt32= gcnew cli::array(nElements); sri::Marshal::Copy( IntPtr((void*) &seq->elements), dynamic_cast^>(arUInt32), 0, nElements); *cli_data= arUInt32; break; } case typelib_TypeClass_HYPER: { cli::array^ arInt64= gcnew cli::array(nElements); sri::Marshal::Copy( IntPtr((void*) &seq->elements), arInt64, 0, nElements); *cli_data= arInt64; break; } //FIXME: Marshal::Copy of UInt64? case typelib_TypeClass_UNSIGNED_HYPER: { cli::array^ arUInt64= gcnew cli::array(nElements); sri::Marshal::Copy( IntPtr((void*) &seq->elements), arUInt64, 0, nElements); *cli_data= dynamic_cast^>(arUInt64); break; } case typelib_TypeClass_FLOAT: { cli::array^ arSingle= gcnew cli::array(nElements); sri::Marshal::Copy( IntPtr((void*) &seq->elements), arSingle, 0, nElements); *cli_data= arSingle; break; } case typelib_TypeClass_DOUBLE: { cli::array^ arDouble= gcnew cli::array(nElements); sri::Marshal::Copy( IntPtr((void*) &seq->elements), arDouble, 0, nElements); *cli_data= arDouble; break; } case typelib_TypeClass_STRING: { cli::array^ arString= gcnew cli::array(nElements); for (int i= 0; i < nElements; i++) { rtl_uString *aStr= ((rtl_uString**)(&seq->elements))[i]; arString[i]= gcnew System::String( (__wchar_t *) &aStr->buffer, 0, aStr->length); } *cli_data= arString; break; } case typelib_TypeClass_TYPE: { cli::array^ arType= gcnew cli::array(nElements); for (int i= 0; i < nElements; i++) { arType[i]= mapUnoType( ((typelib_TypeDescriptionReference**) seq->elements)[i]); } *cli_data= arType; break; } case typelib_TypeClass_ANY: { cli::array^ arCli= gcnew cli::array(nElements); uno_Any const * p = (uno_Any const *)seq->elements; for (sal_Int32 nPos = 0; nPos < nElements; ++nPos ) { System::Object^ cli_obj = nullptr; map_to_cli( &cli_obj, &p[ nPos ], element_type, nullptr, false); arCli[nPos]= *safe_cast(cli_obj); } *cli_data= arCli; break; } case typelib_TypeClass_ENUM: { //get the Enum type System::Type^ enumType= nullptr; if (info != nullptr) { //info is EnumType[]&, remove & OSL_ASSERT(info->IsByRef); enumType = info->GetElementType(); //enumType is EnumType[], remove [] enumType = enumType->GetElementType(); } else enumType= mapUnoType(element_type); System::Array^ arEnum = System::Array::CreateInstance( enumType, nElements); for (int i= 0; i < nElements; i++) { arEnum->SetValue(System::Enum::ToObject(enumType, System::Int32(((sal_Int32*) seq->elements)[i])), i); } *cli_data = arEnum; break; } case typelib_TypeClass_STRUCT: case typelib_TypeClass_EXCEPTION: { TypeDescr element_td( element_type ); System::Array^ ar= System::Array::CreateInstance( mapUnoType(element_type),nElements); if (0 < nElements) { // ToDo check this char * p = (char *) &seq->elements; sal_Int32 nSize = element_td.get()->nSize; for ( sal_Int32 nPos = 0; nPos < nElements; ++nPos ) { System::Object^ val; map_to_cli( &val, p + (nSize * nPos), element_type, nullptr, false); ar->SetValue(val, System::Int32(nPos)); } } *cli_data = ar; break; } // ToDo, verify case typelib_TypeClass_SEQUENCE: { System::Array ^ar= System::Array::CreateInstance( mapUnoType(element_type), nElements); if (0 < nElements) { TypeDescr element_td( element_type ); uno_Sequence ** elements = (uno_Sequence**) seq->elements; for ( sal_Int32 nPos = 0; nPos < nElements; ++nPos ) { System::Object^ val; map_to_cli( &val, &elements[nPos], element_type, nullptr, false); ar->SetValue(val, System::Int32(nPos)); } } *cli_data = ar; break; } case typelib_TypeClass_INTERFACE: { TypeDescr element_td( element_type ); System::Type ^ ifaceType= mapUnoType(element_type); System::Array^ ar= System::Array::CreateInstance(ifaceType, nElements); char * p = (char *)seq->elements; sal_Int32 nSize = element_td.get()->nSize; for ( sal_Int32 nPos = 0; nPos < nElements; ++nPos ) { System::Object^ val; map_to_cli( &val, p + (nSize * nPos), element_type, nullptr, false); ar->SetValue(val, System::Int32(nPos)); } *cli_data= ar; break; } default: { throw BridgeRuntimeError("[map_to_cli():" + OUString::unacquired( &type->pTypeName ) + "] unsupported element type: " + OUString::unacquired( &element_type->pTypeName )); } } break; } case typelib_TypeClass_INTERFACE: { uno_Interface * pUnoI = *(uno_Interface * const *)uno_data; if (0 != pUnoI) { TypeDescr td( type ); *cli_data= map_uno2cli( pUnoI, reinterpret_cast< typelib_InterfaceTypeDescription*>(td.get())) ; } else *cli_data= nullptr; break; } default: { //ToDo check this exception. The String is probably crippled throw BridgeRuntimeError("[map_to_cli():" + OUString::unacquired( &type->pTypeName ) + "] unsupported type!"); } } //switch } // method } // namespace /* vim:set shiftwidth=4 softtabstop=4 expandtab: */