static void dl_txt_unpack_write_subdata_ptr( dl_ctx_t dl_ctx,
dl_txt_unpack_ctx* unpack_ctx,
dl_binary_writer* writer,
const uint8_t* ptrptr,
const dl_type_desc* sub_type )
{
uintptr_t offset = *(uintptr_t*)( ptrptr );
if( offset == (uintptr_t)-1 )
return;
if( offset == 0 )
return;
for( int i = 0; i < unpack_ctx->ptrs_count; ++i )
if( unpack_ctx->ptrs[i].offset == offset )
return;
// TODO: overflow!
unpack_ctx->ptrs[unpack_ctx->ptrs_count++].offset = offset;
dl_txt_unpack_write_indent( writer, unpack_ctx );
dl_txt_unpack_ptr( writer, offset );
dl_binary_writer_write( writer, " : ", 3 );
dl_txt_unpack_struct( dl_ctx, unpack_ctx, writer, sub_type, &unpack_ctx->packed_instance[offset] );
// TODO: extra , at last elem =/
dl_binary_writer_write( writer, ",\n", 2 );
dl_txt_unpack_write_subdata( dl_ctx, unpack_ctx, writer, sub_type, &unpack_ctx->packed_instance[offset] );
}
static void dl_internal_store_array( dl_ctx_t dl_ctx, dl_type_t storage_type, const dl_type_desc* sub_type, uint8_t* instance, uint32_t count, uintptr_t size, CDLBinStoreContext* store_ctx )
{
switch( storage_type )
{
case DL_TYPE_STORAGE_STRUCT:
{
uintptr_t size_ = sub_type->size[DL_PTR_SIZE_HOST];
if( sub_type->flags & DL_TYPE_FLAG_HAS_SUBDATA )
{
for (uint32_t elem = 0; elem < count; ++elem)
dl_internal_instance_store(dl_ctx, sub_type, instance + (elem * size_), store_ctx);
}
else
dl_binary_writer_write( &store_ctx->writer, instance, count * size_ );
}
break;
case DL_TYPE_STORAGE_STR:
for( uint32_t elem = 0; elem < count; ++elem )
dl_internal_store_string( instance + (elem * sizeof(char*)), store_ctx );
break;
default: // default is a standard pod-type
dl_binary_writer_write( &store_ctx->writer, instance, count * size );
break;
}
}
static void dl_internal_store_string( const uint8* instance, CDLBinStoreContext* store_ctx )
{
char* str = *(char**)instance;
pint pos = dl_binary_writer_tell( &store_ctx->writer );
dl_binary_writer_seek_end( &store_ctx->writer );
pint offset = dl_binary_writer_tell( &store_ctx->writer );
dl_binary_writer_write( &store_ctx->writer, str, strlen(str) + 1 );
dl_binary_writer_seek_set( &store_ctx->writer, pos );
dl_binary_writer_write( &store_ctx->writer, &offset, sizeof(pint) );
}
static void dl_internal_store_string( const uint8_t* instance, CDLBinStoreContext* store_ctx )
{
char* str = *(char**)instance;
if( str == 0x0 )
{
dl_binary_writer_write( &store_ctx->writer, &DL_NULL_PTR_OFFSET[ DL_PTR_SIZE_HOST ], sizeof(uintptr_t) );
return;
}
uintptr_t pos = dl_binary_writer_tell( &store_ctx->writer );
dl_binary_writer_seek_end( &store_ctx->writer );
uintptr_t offset = dl_binary_writer_tell( &store_ctx->writer );
dl_binary_writer_write( &store_ctx->writer, str, strlen(str) + 1 );
dl_binary_writer_seek_set( &store_ctx->writer, pos );
dl_binary_writer_write( &store_ctx->writer, &offset, sizeof(uintptr_t) );
}
static void dl_txt_unpack_write_string_or_null( dl_binary_writer* writer, dl_txt_unpack_ctx* unpack_ctx, uintptr_t offset )
{
if( offset == (uintptr_t)-1 )
dl_binary_writer_write( writer, "null", 4 );
else
dl_txt_unpack_write_string( writer, (const char*)&unpack_ctx->packed_instance[offset] );
}
static void dl_txt_unpack_ptr( dl_binary_writer* writer, uintptr_t offset )
{
if( offset == (uintptr_t)-1 )
{
dl_binary_writer_write( writer, "null", 4 );
}
else if( offset == 0 )
{
dl_binary_writer_write( writer, "\"__root\"", 8 );
}
else
{
char buffer[256];
dl_internal_str_format( buffer, sizeof(buffer), "ptr_" DL_UINT64_FMT_STR, (uint64_t)offset );
dl_txt_unpack_write_string( writer, buffer );
}
}
static dl_error_t dl_txt_unpack_root( dl_ctx_t dl_ctx, dl_txt_unpack_ctx* unpack_ctx, dl_binary_writer* writer, dl_typeid_t root_type )
{
dl_binary_writer_write_uint8( writer, '{' );
dl_binary_writer_write_uint8( writer, '\n' );
const dl_type_desc* type = dl_internal_find_type(dl_ctx, root_type);
if( type == 0x0 )
return DL_ERROR_TYPE_NOT_FOUND; // could not find root-type!
unpack_ctx->indent += 2;
dl_txt_unpack_write_indent( writer, unpack_ctx );
dl_txt_unpack_write_string( writer, dl_internal_type_name( dl_ctx, type ) );
dl_binary_writer_write( writer, " : ", 3 );
dl_txt_unpack_struct( dl_ctx, unpack_ctx, writer, type, unpack_ctx->packed_instance );
unpack_ctx->indent -= 2;
dl_binary_writer_write( writer, "\n}\0", 3 );
return DL_ERROR_OK;
}
static void dl_txt_unpack_struct( dl_ctx_t dl_ctx, dl_txt_unpack_ctx* unpack_ctx, dl_binary_writer* writer, const dl_type_desc* type, const uint8_t* struct_data )
{
dl_binary_writer_write( writer, "{\n", 2 );
unpack_ctx->indent += 2;
if( type->flags & DL_TYPE_FLAG_IS_UNION )
{
// TODO: check if type is not set at all ...
size_t type_offset = dl_internal_union_type_offset( dl_ctx, type, DL_PTR_SIZE_HOST );
// find member index from union type ...
uint32_t union_type = *((uint32_t*)(struct_data + type_offset));
const dl_member_desc* member = dl_internal_find_member_desc_by_name_hash( dl_ctx, type, union_type );
dl_txt_unpack_member( dl_ctx, unpack_ctx, writer, member, struct_data + member->offset[DL_PTR_SIZE_HOST] );
dl_binary_writer_write( writer, "\n", 1 );
}
else
{
for( uint32_t member_index = 0; member_index < type->member_count; ++member_index )
{
const dl_member_desc* member = dl_get_type_member( dl_ctx, type, member_index );
dl_txt_unpack_member( dl_ctx, unpack_ctx, writer, member, struct_data + member->offset[DL_PTR_SIZE_HOST] );
if( member_index < type->member_count - 1 )
dl_binary_writer_write( writer, ",\n", 2 );
else
dl_binary_writer_write( writer, "\n", 1 );
}
}
if( struct_data == unpack_ctx->packed_instance )
{
if( unpack_ctx->has_ptrs )
{
unpack_ctx->indent += 2;
dl_txt_unpack_write_indent( writer, unpack_ctx );
dl_binary_writer_write( writer, ", \"__subdata\" : {\n", 18 );
unpack_ctx->indent += 2;
dl_txt_unpack_write_subdata( dl_ctx, unpack_ctx, writer, type, struct_data );
unpack_ctx->indent -= 2;
dl_txt_unpack_write_indent( writer, unpack_ctx );
dl_binary_writer_write( writer, "}\n", 2 );
unpack_ctx->indent -= 2;
}
}
unpack_ctx->indent -= 2;
dl_txt_unpack_write_indent( writer, unpack_ctx );
dl_binary_writer_write_uint8( writer, '}' );
}
static void dl_txt_unpack_write_string( dl_binary_writer* writer, const char* str )
{
dl_binary_writer_write_uint8( writer, '\"' );
while( *str )
{
switch( *str )
{
case '\'': dl_binary_writer_write( writer, "\\\'", 2 ); break;
case '\"': dl_binary_writer_write( writer, "\\\"", 2 ); break;
case '\\': dl_binary_writer_write( writer, "\\\\", 2 ); break;
case '\n': dl_binary_writer_write( writer, "\\n", 2 ); break;
case '\r': dl_binary_writer_write( writer, "\\r", 2 ); break;
case '\t': dl_binary_writer_write( writer, "\\t", 2 ); break;
case '\b': dl_binary_writer_write( writer, "\\b", 2 ); break;
case '\f': dl_binary_writer_write( writer, "\\f", 2 ); break;
break;
default:
dl_binary_writer_write_uint8( writer, (uint8_t)*str );
}
++str;
}
dl_binary_writer_write_uint8( writer, '\"' );
}
static dl_error_t dl_internal_convert_write_struct( dl_ctx_t dl_ctx,
const uint8* data,
const SDLType* type,
SConvertContext& conv_ctx,
dl_binary_writer* writer )
{
dl_binary_writer_align( writer, type->alignment[conv_ctx.m_TargetPtrSize] );
pint Pos = dl_binary_writer_tell( writer );
dl_binary_writer_reserve( writer, type->size[conv_ctx.m_TargetPtrSize] );
for(uint32 iMember = 0; iMember < type->member_count; ++iMember)
{
const SDLMember& Member = type->members[iMember];
const uint8* pMemberData = data + Member.offset[conv_ctx.m_SourcePtrSize];
dl_binary_writer_align( writer, Member.alignment[conv_ctx.m_TargetPtrSize] );
dl_type_t AtomType = Member.AtomType();
dl_type_t StorageType = Member.StorageType();
switch(AtomType)
{
case DL_TYPE_ATOM_POD:
{
switch (StorageType)
{
case DL_TYPE_STORAGE_STRUCT:
{
const SDLType* pSubType = dl_internal_find_type(dl_ctx, Member.type_id);
if(pSubType == 0x0)
return DL_ERROR_TYPE_NOT_FOUND;
dl_internal_convert_write_struct( dl_ctx, pMemberData, pSubType, conv_ctx, writer );
}
break;
case DL_TYPE_STORAGE_STR:
{
pint Offset = DLInternalReadPtrData(pMemberData, conv_ctx.m_SourceEndian, conv_ctx.m_SourcePtrSize);
conv_ctx.m_lPatchOffset.Add( SConvertContext::PatchPos( dl_binary_writer_tell( writer ), Offset ) );
dl_binary_writer_write_ptr( writer, 0x0 );
}
break;
case DL_TYPE_STORAGE_PTR:
{
pint Offset = DLInternalReadPtrData(pMemberData, conv_ctx.m_SourceEndian, conv_ctx.m_SourcePtrSize);
if (Offset != DL_NULL_PTR_OFFSET[conv_ctx.m_SourcePtrSize])
conv_ctx.m_lPatchOffset.Add(SConvertContext::PatchPos( dl_binary_writer_tell( writer ), Offset ) );
dl_binary_writer_write_ptr( writer, pint(-1) );
}
break;
default:
DL_ASSERT(Member.IsSimplePod() || StorageType == DL_TYPE_STORAGE_ENUM);
dl_binary_writer_write_swap( writer, pMemberData, Member.size[conv_ctx.m_SourcePtrSize] );
break;
}
}
break;
case DL_TYPE_ATOM_INLINE_ARRAY:
{
switch(StorageType)
{
case DL_TYPE_STORAGE_STRUCT:
{
const SDLType* pSubType = dl_internal_find_type(dl_ctx, Member.type_id);
if(pSubType == 0x0)
return DL_ERROR_TYPE_NOT_FOUND;
pint MemberSize = Member.size[conv_ctx.m_SourcePtrSize];
pint SubtypeSize = pSubType->size[conv_ctx.m_SourcePtrSize];
for (pint ElemOffset = 0; ElemOffset < MemberSize; ElemOffset += SubtypeSize)
dl_internal_convert_write_struct( dl_ctx, pMemberData + ElemOffset, pSubType, conv_ctx, writer );
}
break;
case DL_TYPE_STORAGE_STR:
{
pint PtrSizeSource = dl_internal_ptr_size(conv_ctx.m_SourcePtrSize);
pint PtrSizeTarget = dl_internal_ptr_size(conv_ctx.m_TargetPtrSize);
uint32 Count = Member.size[conv_ctx.m_SourcePtrSize] / (uint32)PtrSizeSource;
pint Pos = dl_binary_writer_tell( writer );
for (pint iElem = 0; iElem < Count; ++iElem)
{
pint OldOffset = DLInternalReadPtrData(pMemberData + (iElem * PtrSizeSource), conv_ctx.m_SourceEndian, conv_ctx.m_SourcePtrSize);
conv_ctx.m_lPatchOffset.Add(SConvertContext::PatchPos(Pos + (iElem * PtrSizeTarget), OldOffset));
}
dl_binary_writer_write_zero( writer, Member.size[conv_ctx.m_TargetPtrSize] );
}
break;
default:
{
DL_ASSERT(Member.IsSimplePod() || StorageType == DL_TYPE_STORAGE_ENUM);
pint PodSize = DLPodSize(Member.type);
uint32 ArraySize = Member.size[conv_ctx.m_SourcePtrSize];
switch(PodSize)
{
case 1: dl_binary_writer_write_array( writer, pMemberData, ArraySize / sizeof( uint8), sizeof( uint8) ); break;
case 2: dl_binary_writer_write_array( writer, pMemberData, ArraySize / sizeof(uint16), sizeof(uint16) ); break;
case 4: dl_binary_writer_write_array( writer, pMemberData, ArraySize / sizeof(uint32), sizeof(uint32) ); break;
case 8: dl_binary_writer_write_array( writer, pMemberData, ArraySize / sizeof(uint64), sizeof(uint64) ); break;
default:
DL_ASSERT(false && "Not supported pod-size!");
}
}
break;
}
}
break;
case DL_TYPE_ATOM_ARRAY:
{
pint Offset = 0; uint32 Count = 0;
dl_internal_read_array_data( pMemberData, &Offset, &Count, conv_ctx.m_SourceEndian, conv_ctx.m_SourcePtrSize );
if(Offset != DL_NULL_PTR_OFFSET[conv_ctx.m_SourcePtrSize])
conv_ctx.m_lPatchOffset.Add(SConvertContext::PatchPos( dl_binary_writer_tell( writer ), Offset) );
else
Offset = DL_NULL_PTR_OFFSET[conv_ctx.m_TargetPtrSize];
dl_binary_writer_write_ptr( writer, Offset );
dl_binary_writer_write_4byte( writer, pMemberData + dl_internal_ptr_size( conv_ctx.m_SourcePtrSize ) );
if( conv_ctx.m_TargetPtrSize == DL_PTR_SIZE_64BIT )
dl_binary_writer_write_zero( writer, 4 );
}
break;
case DL_TYPE_ATOM_BITFIELD:
{
uint32 j = iMember;
do { j++; } while(j < type->member_count && type->members[j].AtomType() == DL_TYPE_ATOM_BITFIELD);
if(conv_ctx.m_SourceEndian != conv_ctx.m_TargetEndian)
{
uint32 nBFMembers = j - iMember;
switch(Member.size[conv_ctx.m_SourcePtrSize])
{
case 1:
{
uint8 val = dl_convert_bit_field_format_uint8( *(uint8*)pMemberData, &Member, nBFMembers, &conv_ctx );
dl_binary_writer_write_1byte( writer, &val );
} break;
case 2:
{
uint16 val = dl_convert_bit_field_format_uint16( *(uint16*)pMemberData, &Member, nBFMembers, &conv_ctx );
dl_binary_writer_write_2byte( writer, &val );
} break;
case 4:
{
uint32 val = dl_convert_bit_field_format_uint32( *(uint32*)pMemberData, &Member, nBFMembers, &conv_ctx );
dl_binary_writer_write_4byte( writer, &val );
} break;
case 8:
{
uint64 val = dl_convert_bit_field_format_uint64( *(uint64*)pMemberData, &Member, nBFMembers, &conv_ctx );
dl_binary_writer_write_8byte( writer, &val );
} break;
default:
DL_ASSERT(false && "Not supported pod-size or bitfield-size!");
}
}
else
dl_binary_writer_write( writer, pMemberData, Member.size[conv_ctx.m_SourcePtrSize] );
iMember = j - 1;
}
break;
default:
DL_ASSERT(false && "Invalid ATOM-type!");
}
}
// we need to write our entire size with zeroes. Our entire size might be less than the sum of teh members.
pint PosDiff = dl_binary_writer_tell( writer ) - Pos;
if(PosDiff < type->size[conv_ctx.m_TargetPtrSize])
dl_binary_writer_write_zero( writer, type->size[conv_ctx.m_TargetPtrSize] - PosDiff );
DL_ASSERT( dl_binary_writer_tell( writer ) - Pos == type->size[conv_ctx.m_TargetPtrSize] );
return DL_ERROR_OK;
}
static void dl_txt_unpack_int64( dl_binary_writer* writer, int64_t data )
{
char buffer[256];
int len = dl_internal_str_format( buffer, sizeof(buffer), DL_INT64_FMT_STR, data );
dl_binary_writer_write( writer, buffer, (size_t)len );
}
static void dl_txt_unpack_uint16( dl_binary_writer* writer, uint16_t data )
{
char buffer[256];
int len = dl_internal_str_format( buffer, sizeof(buffer), "%u", data );
dl_binary_writer_write( writer, buffer, (size_t)len );
}
static dl_error_t dl_internal_store_member( dl_ctx_t dl_ctx, const dl_member_desc* member, uint8_t* instance, CDLBinStoreContext* store_ctx )
{
dl_type_t atom_type = dl_type_t(member->type & DL_TYPE_ATOM_MASK);
dl_type_t storage_type = dl_type_t(member->type & DL_TYPE_STORAGE_MASK);
switch ( atom_type )
{
case DL_TYPE_ATOM_POD:
{
switch( storage_type )
{
case DL_TYPE_STORAGE_STRUCT:
{
const dl_type_desc* sub_type = dl_internal_find_type( dl_ctx, member->type_id );
if( sub_type == 0x0 )
{
dl_log_error( dl_ctx, "Could not find subtype for member %s", dl_internal_member_name( dl_ctx, member ) );
return DL_ERROR_TYPE_NOT_FOUND;
}
dl_internal_instance_store( dl_ctx, sub_type, instance, store_ctx );
}
break;
case DL_TYPE_STORAGE_STR:
dl_internal_store_string( instance, store_ctx );
break;
case DL_TYPE_STORAGE_PTR:
{
uint8_t* data = *(uint8_t**)instance;
uintptr_t offset = store_ctx->FindWrittenPtr( data );
if( data == 0x0 ) // Null-pointer, store pint(-1) to signal to patching!
{
DL_ASSERT(offset == (uintptr_t)-1 && "This pointer should not have been found among the written ptrs!");
// keep the -1 in Offset and store it to ptr.
}
else if( offset == (uintptr_t)-1 ) // has not been written yet!
{
uintptr_t pos = dl_binary_writer_tell( &store_ctx->writer );
dl_binary_writer_seek_end( &store_ctx->writer );
const dl_type_desc* sub_type = dl_internal_find_type( dl_ctx, member->type_id );
uintptr_t size = dl_internal_align_up( sub_type->size[DL_PTR_SIZE_HOST], sub_type->alignment[DL_PTR_SIZE_HOST] );
dl_binary_writer_align( &store_ctx->writer, sub_type->alignment[DL_PTR_SIZE_HOST] );
offset = dl_binary_writer_tell( &store_ctx->writer );
// write data!
dl_binary_writer_reserve( &store_ctx->writer, size ); // reserve space for ptr so subdata is placed correctly
store_ctx->AddWrittenPtr(data, offset);
dl_internal_instance_store(dl_ctx, sub_type, data, store_ctx);
dl_binary_writer_seek_set( &store_ctx->writer, pos );
}
dl_binary_writer_write( &store_ctx->writer, &offset, sizeof(uintptr_t) );
}
break;
default: // default is a standard pod-type
DL_ASSERT( member->IsSimplePod() || storage_type == DL_TYPE_STORAGE_ENUM );
dl_binary_writer_write( &store_ctx->writer, instance, member->size[DL_PTR_SIZE_HOST] );
break;
}
}
return DL_ERROR_OK;
case DL_TYPE_ATOM_INLINE_ARRAY:
{
const dl_type_desc* sub_type = 0x0;
uint32_t count = member->inline_array_cnt();
if( storage_type == DL_TYPE_STORAGE_STRUCT )
{
sub_type = dl_internal_find_type(dl_ctx, member->type_id);
if (sub_type == 0x0)
{
dl_log_error(dl_ctx, "Could not find subtype for member %s", dl_internal_member_name(dl_ctx, member));
return DL_ERROR_TYPE_NOT_FOUND;
}
}
else if( storage_type != DL_TYPE_STORAGE_STR )
count = member->size[DL_PTR_SIZE_HOST];
dl_internal_store_array( dl_ctx, storage_type, sub_type, instance, count, 1, store_ctx );
}
return DL_ERROR_OK;
case DL_TYPE_ATOM_ARRAY:
{
uintptr_t size = 0;
const dl_type_desc* sub_type = 0x0;
uint8_t* data_ptr = instance;
uint32_t count = *(uint32_t*)( data_ptr + sizeof(void*) );
uintptr_t offset = 0;
if( count == 0 )
offset = DL_NULL_PTR_OFFSET[ DL_PTR_SIZE_HOST ];
else
{
uintptr_t pos = dl_binary_writer_tell( &store_ctx->writer );
dl_binary_writer_seek_end( &store_ctx->writer );
switch(storage_type)
{
case DL_TYPE_STORAGE_STRUCT:
sub_type = dl_internal_find_type( dl_ctx, member->type_id );
size = dl_internal_align_up( sub_type->size[DL_PTR_SIZE_HOST], sub_type->alignment[DL_PTR_SIZE_HOST] );
dl_binary_writer_align( &store_ctx->writer, sub_type->alignment[DL_PTR_SIZE_HOST] );
break;
case DL_TYPE_STORAGE_STR:
size = sizeof(void*);
dl_binary_writer_align( &store_ctx->writer, size );
break;
default:
size = dl_pod_size( member->type );
dl_binary_writer_align( &store_ctx->writer, size );
}
offset = dl_binary_writer_tell( &store_ctx->writer );
// write data!
dl_binary_writer_reserve( &store_ctx->writer, count * size ); // reserve space for array so subdata is placed correctly
uint8_t* data = *(uint8_t**)data_ptr;
dl_internal_store_array( dl_ctx, storage_type, sub_type, data, count, size, store_ctx );
dl_binary_writer_seek_set( &store_ctx->writer, pos );
}
// make room for ptr
dl_binary_writer_write( &store_ctx->writer, &offset, sizeof(uintptr_t) );
// write count
dl_binary_writer_write( &store_ctx->writer, &count, sizeof(uint32_t) );
}
return DL_ERROR_OK;
case DL_TYPE_ATOM_BITFIELD:
dl_binary_writer_write( &store_ctx->writer, instance, member->size[DL_PTR_SIZE_HOST] );
break;
default:
DL_ASSERT(false && "Invalid ATOM-type!");
break;
}
return DL_ERROR_OK;
}
static dl_error_t dl_internal_store_member( dl_ctx_t dl_ctx, const SDLMember* member, uint8* instance, CDLBinStoreContext* store_ctx )
{
dl_type_t atom_type = dl_type_t(member->type & DL_TYPE_ATOM_MASK);
dl_type_t storage_type = dl_type_t(member->type & DL_TYPE_STORAGE_MASK);
switch ( atom_type )
{
case DL_TYPE_ATOM_POD:
{
switch( storage_type )
{
case DL_TYPE_STORAGE_STRUCT:
{
const SDLType* sub_type = dl_internal_find_type( dl_ctx, member->type_id );
if( sub_type == 0x0 )
{
dl_log_error( dl_ctx, "Could not find subtype for member %s", member->name );
return DL_ERROR_TYPE_NOT_FOUND;
}
dl_internal_instance_store( dl_ctx, sub_type, instance, store_ctx );
}
break;
case DL_TYPE_STORAGE_STR:
dl_internal_store_string( instance, store_ctx );
break;
case DL_TYPE_STORAGE_PTR:
{
uint8* data = *(uint8**)instance;
pint offset = store_ctx->FindWrittenPtr( data );
if( data == 0x0 ) // Null-pointer, store pint(-1) to signal to patching!
{
DL_ASSERT(offset == pint(-1) && "This pointer should not have been found among the written ptrs!");
// keep the -1 in Offset and store it to ptr.
}
else if( offset == pint(-1) ) // has not been written yet!
{
pint pos = dl_binary_writer_tell( &store_ctx->writer );
dl_binary_writer_seek_end( &store_ctx->writer );
const SDLType* sub_type = dl_internal_find_type( dl_ctx, member->type_id );
pint size = dl_internal_align_up( sub_type->size[DL_PTR_SIZE_HOST], sub_type->alignment[DL_PTR_SIZE_HOST] );
dl_binary_writer_align( &store_ctx->writer, sub_type->alignment[DL_PTR_SIZE_HOST] );
offset = dl_binary_writer_tell( &store_ctx->writer );
// write data!
dl_binary_writer_reserve( &store_ctx->writer, size ); // reserve space for ptr so subdata is placed correctly
store_ctx->AddWrittenPtr(data, offset);
dl_internal_instance_store(dl_ctx, sub_type, data, store_ctx);
dl_binary_writer_seek_set( &store_ctx->writer, pos );
}
dl_binary_writer_write( &store_ctx->writer, &offset, sizeof(pint) );
}
break;
default: // default is a standard pod-type
DL_ASSERT( member->IsSimplePod() || storage_type == DL_TYPE_STORAGE_ENUM );
dl_binary_writer_write( &store_ctx->writer, instance, member->size[DL_PTR_SIZE_HOST] );
break;
}
}
return DL_ERROR_OK;
case DL_TYPE_ATOM_INLINE_ARRAY:
{
switch( storage_type )
{
case DL_TYPE_STORAGE_STRUCT:
dl_binary_writer_write( &store_ctx->writer, instance, member->size[DL_PTR_SIZE_HOST] ); // TODO: I Guess that this is a bug! Will it fix ptrs well?
break;
case DL_TYPE_STORAGE_STR:
{
uint32 count = member->size[DL_PTR_SIZE_HOST] / sizeof(char*);
for( uint32 elem = 0; elem < count; ++elem )
dl_internal_store_string( instance + (elem * sizeof(char*)), store_ctx );
}
break;
default: // default is a standard pod-type
DL_ASSERT( member->IsSimplePod() || storage_type == DL_TYPE_STORAGE_ENUM );
dl_binary_writer_write( &store_ctx->writer, instance, member->size[DL_PTR_SIZE_HOST] );
break;
}
}
return DL_ERROR_OK;
case DL_TYPE_ATOM_ARRAY:
{
pint size = 0;
const SDLType* sub_type = 0x0;
uint8* data_ptr = instance;
uint32 count = *(uint32*)( data_ptr + sizeof(void*) );
pint offset = 0;
if( count == 0 )
offset = DL_NULL_PTR_OFFSET[ DL_PTR_SIZE_HOST ];
else
{
pint pos = dl_binary_writer_tell( &store_ctx->writer );
dl_binary_writer_seek_end( &store_ctx->writer );
switch(storage_type)
{
case DL_TYPE_STORAGE_STRUCT:
sub_type = dl_internal_find_type( dl_ctx, member->type_id );
size = dl_internal_align_up( sub_type->size[DL_PTR_SIZE_HOST], sub_type->alignment[DL_PTR_SIZE_HOST] );
dl_binary_writer_align( &store_ctx->writer, sub_type->alignment[DL_PTR_SIZE_HOST] );
break;
case DL_TYPE_STORAGE_STR:
size = sizeof(void*);
dl_binary_writer_align( &store_ctx->writer, size );
break;
default:
size = DLPodSize( member->type );
dl_binary_writer_align( &store_ctx->writer, size );
}
offset = dl_binary_writer_tell( &store_ctx->writer );
// write data!
dl_binary_writer_reserve( &store_ctx->writer, count * size ); // reserve space for array so subdata is placed correctly
uint8* data = *(uint8**)data_ptr;
switch(storage_type)
{
case DL_TYPE_STORAGE_STRUCT:
for ( unsigned int elem = 0; elem < count; ++elem )
dl_internal_instance_store( dl_ctx, sub_type, data + (elem * size), store_ctx );
break;
case DL_TYPE_STORAGE_STR:
for ( unsigned int elem = 0; elem < count; ++elem )
dl_internal_store_string( data + (elem * size), store_ctx );
break;
default:
for ( unsigned int elem = 0; elem < count; ++elem )
dl_binary_writer_write( &store_ctx->writer, data + (elem * size), size ); break;
}
dl_binary_writer_seek_set( &store_ctx->writer, pos );
}
// make room for ptr
dl_binary_writer_write( &store_ctx->writer, &offset, sizeof(pint) );
// write count
dl_binary_writer_write( &store_ctx->writer, &count, sizeof(uint32) );
}
return DL_ERROR_OK;
case DL_TYPE_ATOM_BITFIELD:
dl_binary_writer_write( &store_ctx->writer, instance, member->size[DL_PTR_SIZE_HOST] );
break;
default:
DL_ASSERT(false && "Invalid ATOM-type!");
break;
}
return DL_ERROR_OK;
}
static void dl_txt_unpack_fp64( dl_binary_writer* writer, double data )
{
char buffer[256];
int len = dl_internal_str_format( buffer, sizeof(buffer), "%.17g", data );
dl_binary_writer_write( writer, buffer, (size_t)len );
}
static void dl_txt_unpack_array( dl_ctx_t dl_ctx,
dl_txt_unpack_ctx* unpack_ctx,
dl_binary_writer* writer,
dl_type_storage_t storage,
const uint8_t* array_data,
uint32_t array_count,
dl_typeid_t tid )
{
dl_binary_writer_write_uint8( writer, '[' );
switch( storage )
{
case DL_TYPE_STORAGE_INT8:
{
int8_t* mem = (int8_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_int8( writer, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_int8( writer, mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_INT16:
{
int16_t* mem = (int16_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_int16( writer, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_int16( writer, mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_INT32:
{
int32_t* mem = (int32_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_int32( writer, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_int32( writer, mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_INT64:
{
int64_t* mem = (int64_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_int64( writer, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_int64( writer, mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_UINT8:
{
uint8_t* mem = (uint8_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_uint8( writer, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_uint8( writer, mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_UINT16:
{
uint16_t* mem = (uint16_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_uint16( writer, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_uint16( writer, mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_UINT32:
{
uint32_t* mem = (uint32_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_uint32( writer, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_uint32( writer, mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_UINT64:
{
uint64_t* mem = (uint64_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_uint64( writer, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_uint64( writer, mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_FP32:
{
float* mem = (float*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_fp32( writer, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_fp32( writer, mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_FP64:
{
double* mem = (double*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_fp64( writer, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_fp64( writer, mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_STR:
{
uintptr_t* mem = (uintptr_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_write_string_or_null( writer, unpack_ctx, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_write_string_or_null( writer, unpack_ctx, mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_PTR:
{
uintptr_t* mem = (uintptr_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_ptr( writer, mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_ptr( writer, mem[array_count - 1] );
unpack_ctx->has_ptrs = true;
break;
}
case DL_TYPE_STORAGE_STRUCT:
{
const dl_type_desc* type = dl_internal_find_type( dl_ctx, tid );
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_struct( dl_ctx, unpack_ctx, writer, type, array_data + i * type->size[DL_PTR_SIZE_HOST] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_struct( dl_ctx, unpack_ctx, writer, type, array_data + (array_count - 1) * type->size[DL_PTR_SIZE_HOST] );
break;
}
case DL_TYPE_STORAGE_ENUM_INT8:
{
const dl_enum_desc* e = dl_internal_find_enum( dl_ctx, tid );
DL_ASSERT( e != 0x0, "handle this error!");
int8_t* mem = (int8_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_ENUM_UINT8:
{
const dl_enum_desc* e = dl_internal_find_enum( dl_ctx, tid );
DL_ASSERT( e != 0x0, "handle this error!");
uint8_t* mem = (uint8_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_ENUM_INT16:
{
const dl_enum_desc* e = dl_internal_find_enum( dl_ctx, tid );
DL_ASSERT( e != 0x0, "handle this error!");
int16_t* mem = (int16_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_ENUM_UINT16:
{
const dl_enum_desc* e = dl_internal_find_enum( dl_ctx, tid );
DL_ASSERT( e != 0x0, "handle this error!");
uint16_t* mem = (uint16_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_ENUM_INT32:
{
const dl_enum_desc* e = dl_internal_find_enum( dl_ctx, tid );
DL_ASSERT( e != 0x0, "handle this error!");
int32_t* mem = (int32_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_ENUM_UINT32:
{
const dl_enum_desc* e = dl_internal_find_enum( dl_ctx, tid );
DL_ASSERT( e != 0x0, "handle this error!");
uint32_t* mem = (uint32_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_ENUM_INT64:
{
const dl_enum_desc* e = dl_internal_find_enum( dl_ctx, tid );
DL_ASSERT( e != 0x0, "handle this error!");
int64_t* mem = (int64_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[array_count - 1] );
}
break;
case DL_TYPE_STORAGE_ENUM_UINT64:
{
const dl_enum_desc* e = dl_internal_find_enum( dl_ctx, tid );
DL_ASSERT( e != 0x0, "handle this error!");
uint64_t* mem = (uint64_t*)array_data;
for( uint32_t i = 0; i < array_count - 1; ++i )
{
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[i] );
dl_binary_writer_write( writer, ", ", 2 );
}
dl_txt_unpack_enum( dl_ctx, writer, e, (uint64_t)mem[array_count - 1] );
}
break;
default:
DL_ASSERT( false );
}
dl_binary_writer_write_uint8( writer, ']' );
}
static void dl_txt_unpack_member( dl_ctx_t dl_ctx, dl_txt_unpack_ctx* unpack_ctx, dl_binary_writer* writer, const dl_member_desc* member, const uint8_t* member_data )
{
dl_txt_unpack_write_indent( writer, unpack_ctx );
dl_txt_unpack_write_string( writer, dl_internal_member_name( dl_ctx, member ) );
dl_binary_writer_write( writer, " : ", 3 );
switch( member->AtomType() )
{
case DL_TYPE_ATOM_POD:
{
switch( member->StorageType() )
{
case DL_TYPE_STORAGE_INT8: dl_txt_unpack_int8 ( writer, *(int8_t* )member_data ); break;
case DL_TYPE_STORAGE_INT16: dl_txt_unpack_int16 ( writer, *(int16_t*)member_data ); break;
case DL_TYPE_STORAGE_INT32: dl_txt_unpack_int32 ( writer, *(int32_t*)member_data ); break;
case DL_TYPE_STORAGE_INT64: dl_txt_unpack_int64 ( writer, *(int64_t*)member_data ); break;
case DL_TYPE_STORAGE_UINT8: dl_txt_unpack_uint8 ( writer, *(uint8_t* )member_data ); break;
case DL_TYPE_STORAGE_UINT16: dl_txt_unpack_uint16( writer, *(uint16_t*)member_data ); break;
case DL_TYPE_STORAGE_UINT32: dl_txt_unpack_uint32( writer, *(uint32_t*)member_data ); break;
case DL_TYPE_STORAGE_UINT64: dl_txt_unpack_uint64( writer, *(uint64_t*)member_data ); break;
case DL_TYPE_STORAGE_FP32: dl_txt_unpack_fp32 ( writer, *(float*)member_data ); break;
case DL_TYPE_STORAGE_FP64: dl_txt_unpack_fp64 ( writer, *(double*)member_data ); break;
case DL_TYPE_STORAGE_ENUM_INT8: dl_txt_unpack_enum ( dl_ctx, writer, dl_internal_find_enum( dl_ctx, member->type_id ), (uint64_t)*( int8_t*) member_data ); break;
case DL_TYPE_STORAGE_ENUM_UINT8: dl_txt_unpack_enum ( dl_ctx, writer, dl_internal_find_enum( dl_ctx, member->type_id ), (uint64_t)*(uint8_t*) member_data ); break;
case DL_TYPE_STORAGE_ENUM_INT16: dl_txt_unpack_enum ( dl_ctx, writer, dl_internal_find_enum( dl_ctx, member->type_id ), (uint64_t)*( int16_t*) member_data ); break;
case DL_TYPE_STORAGE_ENUM_UINT16: dl_txt_unpack_enum ( dl_ctx, writer, dl_internal_find_enum( dl_ctx, member->type_id ), (uint64_t)*(uint16_t*) member_data ); break;
case DL_TYPE_STORAGE_ENUM_INT32: dl_txt_unpack_enum ( dl_ctx, writer, dl_internal_find_enum( dl_ctx, member->type_id ), (uint64_t)*( int32_t*) member_data ); break;
case DL_TYPE_STORAGE_ENUM_UINT32: dl_txt_unpack_enum ( dl_ctx, writer, dl_internal_find_enum( dl_ctx, member->type_id ), (uint64_t)*(uint32_t*) member_data ); break;
case DL_TYPE_STORAGE_ENUM_INT64: dl_txt_unpack_enum ( dl_ctx, writer, dl_internal_find_enum( dl_ctx, member->type_id ), (uint64_t)*( int64_t*) member_data ); break;
case DL_TYPE_STORAGE_ENUM_UINT64: dl_txt_unpack_enum ( dl_ctx, writer, dl_internal_find_enum( dl_ctx, member->type_id ), (uint64_t)*(uint64_t*) member_data ); break;
case DL_TYPE_STORAGE_STR: dl_txt_unpack_write_string_or_null( writer, unpack_ctx, *(uintptr_t*)member_data ); break;
case DL_TYPE_STORAGE_PTR:
{
dl_txt_unpack_ptr( writer, *(uintptr_t*)member_data );
unpack_ctx->has_ptrs = true;
}
break;
case DL_TYPE_STORAGE_STRUCT: dl_txt_unpack_struct( dl_ctx, unpack_ctx, writer, dl_internal_find_type( dl_ctx, member->type_id ), member_data ); break;
default:
DL_ASSERT(false);
}
}
break;
case DL_TYPE_ATOM_ARRAY:
{
uintptr_t offset = *(uintptr_t*)member_data;
uint32_t count = *(uint32_t*)(member_data + sizeof(uintptr_t));
if( offset == (uintptr_t)-1 )
dl_binary_writer_write( writer, "[]", 2 );
else
dl_txt_unpack_array( dl_ctx, unpack_ctx, writer, member->StorageType(), &unpack_ctx->packed_instance[offset], count, member->type_id );
}
break;
case DL_TYPE_ATOM_INLINE_ARRAY:
dl_txt_unpack_array( dl_ctx, unpack_ctx, writer, member->StorageType(), member_data, member->inline_array_cnt(), member->type_id );
break;
case DL_TYPE_ATOM_BITFIELD:
{
uint64_t write_me = 0;
uint32_t bf_bits = member->bitfield_bits();
uint32_t bf_offset = dl_bf_offset( DL_ENDIAN_HOST, member->size[DL_PTR_SIZE_HOST], member->bitfield_offset(), bf_bits );
switch( member->size[DL_PTR_SIZE_HOST] )
{
case 1: write_me = DL_EXTRACT_BITS( uint64_t( *(uint8_t*)member_data), uint64_t(bf_offset), uint64_t(bf_bits) ); break;
case 2: write_me = DL_EXTRACT_BITS( uint64_t(*(uint16_t*)member_data), uint64_t(bf_offset), uint64_t(bf_bits) ); break;
case 4: write_me = DL_EXTRACT_BITS( uint64_t(*(uint32_t*)member_data), uint64_t(bf_offset), uint64_t(bf_bits) ); break;
case 8: write_me = DL_EXTRACT_BITS( uint64_t(*(uint64_t*)member_data), uint64_t(bf_offset), uint64_t(bf_bits) ); break;
default:
DL_ASSERT(false && "This should not happen!");
break;
}
dl_txt_unpack_uint64( writer, write_me );
}
break;
default:
DL_ASSERT( false );
}
}