13 Commits

9 changed files with 700 additions and 227 deletions

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@@ -544,6 +544,7 @@ For the most accurate and up-to-date list, refer to the `libaaruformat` source.
|ISO_14517|802|5.25", M.O., 1273011 sectors, 1024 bytes/sector, ISO 14517, 2.6Gb/cart
|ISO_14517_512|803|5.25", M.O., 2244958 sectors, 512 bytes/sector, ISO 14517, 2.3Gb/cart
|ISO_15041_512|804|3.5", M.O., 1041500 sectors, 512 bytes/sector, ISO 15041, 540Mb/cart
|HSM650|805|3,5", M.O., ??????? sectors, proprietary, 650Mb/cart, Sony HyperStorage
|MetaFloppy_Mod_I|820|5.25", SS, DD, 35 tracks, 16 spt, 256 bytes/sector, MFM, 48 tpi, ???rpm
|AtariLynxCard|821|
|AtariJaguarCartridge|822|

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@@ -770,8 +770,60 @@ typedef enum
// VideoNow, types 740 to 749
VideoNow = 740, ///< Hasbro VideoNow 85 mm proprietary video disc
VideoNowColor = 741, ///< Hasbro VideoNow Color disc
VideoNowXp = 742 ///< Hasbro VideoNow XP higher capacity disc
//
VideoNowXp = 742, ///< Hasbro VideoNow XP higher capacity disc
// VideoNow, types 740 to 749
// Iomega, types 750 to 759
Bernoulli10 = 750, ///< 8"x11" Bernoulli Box disk with 10Mb capacity
///< 8"x11" Bernoulli Box disk with 20Mb capacity
Bernoulli20 = 751,
///< 5⅓" Bernoulli Box II disk with 20Mb capacity
BernoulliBox2_20 = 752,
// Iomega, types 750 to 759
// Kodak, types 760 to 769
KodakVerbatim3 = 760, ///< Kodak/Verbatim (3Mb)
KodakVerbatim6 = 761, ///< Kodak/Verbatim (6Mb)
KodakVerbatim12 = 762, ///< Kodak/Verbatim (12Mb)
// Kodak, types 760 to 769
// Sony and Panasonic Blu-ray derived, types 770 to 799
ProfessionalDisc = 770, ///< Professional Disc for video, single layer, rewritable, 23Gb
ProfessionalDiscDual = 771, ///< Professional Disc for video, dual layer, rewritable, 50Gb
ProfessionalDiscTriple = 772, ///< Professional Disc for video, triple layer, rewritable, 100Gb
ProfessionalDiscQuad = 773, ///< Professional Disc for video, quad layer, write once, 128Gb
PDD = 774, ///< Professional Disc for DATA, single layer, rewritable, 23Gb
PDD_WORM = 775, ///< Professional Disc for DATA, single layer, write once, 23Gb
ArchivalDisc = 776, ///< Archival Disc, 1st gen., 300Gb
ArchivalDisc2 = 777, ///< Archival Disc, 2nd gen., 500Gb
ArchivalDisc3 = 778, ///< Archival Disc, 3rd gen., 1Tb
ODC300R = 779, ///< Optical Disc archive, 1st gen., write once, 300Gb
ODC300RE = 780, ///< Optical Disc archive, 1st gen., rewritable, 300Gb
ODC600R = 781, ///< Optical Disc archive, 2nd gen., write once, 600Gb
ODC600RE = 782, ///< Optical Disc archive, 2nd gen., rewritable, 600Gb
ODC1200RE = 783, ///< Optical Disc archive, 3rd gen., rewritable, 1200Gb
ODC1500R = 784, ///< Optical Disc archive, 3rd gen., write once, 1500Gb
ODC3300R = 785, ///< Optical Disc archive, 4th gen., write once, 3300Gb
ODC5500R = 786, ///< Optical Disc archive, 5th gen., write once, 5500Gb
// Sony and Panasonic Blu-ray derived, types 770 to 799
// Magneto-optical, types 800 to 819
ECMA_322_1k = 800, ///< 5,25", M.O., 4383356 sectors, 1024 bytes/sector, ECMA-322, ISO 22092, 9.1Gb/cart
ECMA_322_512 = 801, ///< 5,25", M.O., ??????? sectors, 512 bytes/sector, ECMA-322, ISO 22092, 9.1Gb/cart
ISO_14517 = 802, ///< 5,25", M.O., 1273011 sectors, 1024 bytes/sector, ISO 14517, 2.6Gb/cart
ISO_14517_512 = 803, ///< 5,25", M.O., 2244958 sectors, 512 bytes/sector, ISO 14517, 2.3Gb/cart
ISO_15041_512 = 804, ///< 3,5", M.O., 1041500 sectors, 512 bytes/sector, ISO 15041, 540Mb/cart
HSM650 = 805, ///< 3,5", M.O., ??????? sectors, proprietary, 650Mb/cart, Sony HyperStorage
// Magneto-optical, types 800 to 819
// More floppy formats, types 820 to deprecated
MetaFloppy_Mod_I = 820, ///< 5.25", SS, DD, 35 tracks, 16 spt, 256 bytes/sector, MFM, 48 tpi, ???rpm
HF12 = 823, ///< HyperFlex (12Mb), 5.25", DS, 301 tracks, 78 spt, 256 bytes/sector, MFM, 333 tpi, 600rpm
HF24 = 824, ///< HyperFlex (24Mb), 5.25", DS, 506 tracks, 78 spt, 256 bytes/sector, MFM, 666 tpi, 720rpm
// More floppy formats, types 820 to deprecated
AtariLynxCard = 821, ///< Atari Lynx card
AtariJaguarCartridge = 822 ///< Atari Jaguar cartridge
} MediaType;
/** @} */ /* end of MediaTypes group */
@@ -1008,7 +1060,7 @@ typedef enum
MiniDiscUTOC = 71, ///< User TOC, contains fragments, track names, and can be from 1 to 3 sectors of 2336 bytes
MiniDiscDTOC = 72, ///< Not entirely clear kind of TOC that only appears on MD-DATA discs
DVD_DiscKey_Decrypted = 73, ///< Decrypted DVD disc key,
MaxMediaTag = DVD_DiscKey_Decrypted
MaxMediaTag = DVD_DiscKey_Decrypted
} MediaTagType;
/** @} */ /* end of MediaTags group */

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@@ -2,7 +2,7 @@
<package xmlns="http://schemas.microsoft.com/packaging/2010/07/nuspec.xsd">
<metadata>
<id>libaaruformat</id>
<version>1.0.0-alpha.13</version>
<version>1.0.0-alpha.17</version>
<description>Library for management of AaruFormat images.</description>
<authors>claunia</authors>
<projectUrl>https://github.com/aaru-dps/libaaruformat</projectUrl>

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@@ -81,7 +81,7 @@ void process_metadata_block(aaruformat_context *ctx, const IndexEntry *entry)
ctx->image_info.ImageSize += ctx->metadata_block_header.blockSize;
ctx->metadata_block = (uint8_t *)malloc(ctx->metadata_block_header.blockSize);
ctx->metadata_block = (uint8_t *)malloc(ctx->metadata_block_header.blockSize + sizeof(MetadataBlockHeader));
if(ctx->metadata_block == NULL)
{
@@ -92,15 +92,20 @@ void process_metadata_block(aaruformat_context *ctx, const IndexEntry *entry)
return;
}
TRACE("Reading metadata block of size %u at position %" PRIu64, ctx->metadata_block_header.blockSize,
entry->offset + sizeof(MetadataBlockHeader));
read_bytes = fread(ctx->metadata_block, 1, ctx->metadata_block_header.blockSize, ctx->imageStream);
TRACE("Reading metadata block of size %u at position %" PRIu64,
ctx->metadata_block_header.blockSize + sizeof(MetadataBlockHeader), entry->offset);
if(read_bytes != ctx->metadata_block_header.blockSize)
fseek(ctx->imageStream, entry->offset, SEEK_SET);
read_bytes = fread(ctx->metadata_block, 1, ctx->metadata_block_header.blockSize + sizeof(MetadataBlockHeader),
ctx->imageStream);
if(read_bytes != ctx->metadata_block_header.blockSize + sizeof(MetadataBlockHeader))
{
memset(&ctx->metadata_block_header, 0, sizeof(MetadataBlockHeader));
free(ctx->metadata_block);
FATAL("Could not read metadata block, continuing...");
return;
}
if(ctx->metadata_block_header.mediaSequence > 0 && ctx->metadata_block_header.lastMediaSequence > 0)

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@@ -939,6 +939,7 @@ static void write_mode2_subheaders_block(aaruformat_context *ctx)
else
subheaders_block.cmpCrc64 = aaruf_crc64_data(buffer, subheaders_block.cmpLength);
const size_t length_to_write = subheaders_block.cmpLength;
if(subheaders_block.compression == Lzma) subheaders_block.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -947,7 +948,7 @@ static void write_mode2_subheaders_block(aaruformat_context *ctx)
if(subheaders_block.compression == Lzma) fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream);
// Write data
size_t written_bytes = fwrite(buffer, subheaders_block.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote MODE 2 subheaders block (%" PRIu64 " bytes)", subheaders_block.cmpLength);
@@ -1052,6 +1053,7 @@ static void write_sector_prefix(aaruformat_context *ctx)
else
prefix_block.cmpCrc64 = aaruf_crc64_data(buffer, prefix_block.cmpLength);
const size_t length_to_write = prefix_block.cmpLength;
if(prefix_block.compression == Lzma) prefix_block.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -1060,7 +1062,7 @@ static void write_sector_prefix(aaruformat_context *ctx)
if(prefix_block.compression == Lzma) fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream);
// Write data
const size_t written_bytes = fwrite(buffer, prefix_block.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote CD sector prefix block (%" PRIu64 " bytes)", prefix_block.cmpLength);
@@ -1174,6 +1176,7 @@ static void write_sector_suffix(aaruformat_context *ctx)
else
suffix_block.cmpCrc64 = aaruf_crc64_data(buffer, suffix_block.cmpLength);
const size_t length_to_write = suffix_block.cmpLength;
if(suffix_block.compression == Lzma) suffix_block.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -1182,7 +1185,7 @@ static void write_sector_suffix(aaruformat_context *ctx)
if(suffix_block.compression == Lzma) fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream);
// Write data
const size_t written_bytes = fwrite(buffer, suffix_block.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote CD sector suffix block (%" PRIu64 " bytes)", suffix_block.cmpLength);
@@ -1302,6 +1305,7 @@ static void write_sector_prefix_ddt(aaruformat_context *ctx)
else
ddt_header2.cmpCrc64 = aaruf_crc64_data(buffer, (uint32_t)ddt_header2.cmpLength);
const size_t length_to_write = ddt_header2.cmpLength;
if(ddt_header2.compression == Lzma) ddt_header2.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -1310,7 +1314,7 @@ static void write_sector_prefix_ddt(aaruformat_context *ctx)
if(ddt_header2.compression == Lzma) fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream);
// Write data
const size_t written_bytes = fwrite(buffer, ddt_header2.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote sector prefix DDT v2 (%" PRIu64 " bytes)", ddt_header2.cmpLength);
@@ -1446,6 +1450,7 @@ static void write_sector_suffix_ddt(aaruformat_context *ctx)
else
ddt_header2.cmpCrc64 = aaruf_crc64_data(buffer, (uint32_t)ddt_header2.cmpLength);
const size_t length_to_write = ddt_header2.cmpLength;
if(ddt_header2.compression == Lzma) ddt_header2.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -1454,7 +1459,7 @@ static void write_sector_suffix_ddt(aaruformat_context *ctx)
if(ddt_header2.compression == Lzma) fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream);
// Write data
const size_t written_bytes = fwrite(buffer, ddt_header2.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote sector suffix DDT v2 (%" PRIu64 " bytes)", ddt_header2.cmpLength);
@@ -1553,14 +1558,13 @@ static void write_sector_subchannel(const aaruformat_context *ctx)
bool owns_buffer = false;
uint8_t lzma_properties[LZMA_PROPERTIES_LENGTH] = {0};
subchannel_block.cmpLength = subchannel_block.length;
if(ctx->image_info.MetadataMediaType == OpticalDisc)
{
subchannel_block.type = CdSectorSubchannel;
subchannel_block.length = (uint32_t)(ctx->user_data_ddt_header.negative + ctx->image_info.Sectors +
ctx->user_data_ddt_header.overflow) *
96;
subchannel_block.cmpLength = subchannel_block.length;
if(ctx->compression_enabled)
{
@@ -1627,6 +1631,7 @@ static void write_sector_subchannel(const aaruformat_context *ctx)
TRACE("Incorrect media type, not writing sector subchannel block");
return; // Incorrect media type
}
subchannel_block.cmpLength = subchannel_block.length;
subchannel_block.compression = Lzma;
uint8_t *dst_buffer = malloc(subchannel_block.length);
@@ -1669,6 +1674,7 @@ static void write_sector_subchannel(const aaruformat_context *ctx)
else
subchannel_block.cmpCrc64 = aaruf_crc64_data(buffer, subchannel_block.cmpLength);
const size_t length_to_write = subchannel_block.cmpLength;
if(subchannel_block.compression != None) subchannel_block.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -1677,7 +1683,7 @@ static void write_sector_subchannel(const aaruformat_context *ctx)
if(subchannel_block.compression != None) fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream);
// Write data
const size_t written_bytes = fwrite(buffer, subchannel_block.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote sector subchannel block (%" PRIu64 " bytes)", subchannel_block.cmpLength);
@@ -1899,6 +1905,7 @@ void write_dvd_long_sector_blocks(aaruformat_context *ctx)
else
id_block.cmpCrc64 = aaruf_crc64_data(buffer, id_block.cmpLength);
size_t length_to_write = id_block.cmpLength;
if(id_block.compression == Lzma) id_block.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -1907,7 +1914,7 @@ void write_dvd_long_sector_blocks(aaruformat_context *ctx)
if(id_block.compression == Lzma) fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream);
// Write data
const size_t written_bytes = fwrite(buffer, id_block.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote DVD sector ID block (%" PRIu64 " bytes)", id_block.cmpLength);
@@ -1981,6 +1988,7 @@ void write_dvd_long_sector_blocks(aaruformat_context *ctx)
else
ied_block.cmpCrc64 = aaruf_crc64_data(buffer, ied_block.cmpLength);
length_to_write = ied_block.cmpLength;
if(ied_block.compression == Lzma) ied_block.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -1989,7 +1997,7 @@ void write_dvd_long_sector_blocks(aaruformat_context *ctx)
if(ied_block.compression == Lzma) fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream);
// Write data
const size_t written_bytes = fwrite(buffer, ied_block.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote DVD sector IED block (%" PRIu64 " bytes)", ied_block.cmpLength);
@@ -2063,6 +2071,7 @@ void write_dvd_long_sector_blocks(aaruformat_context *ctx)
else
cpr_mai_block.cmpCrc64 = aaruf_crc64_data(buffer, cpr_mai_block.cmpLength);
length_to_write = cpr_mai_block.cmpLength;
if(cpr_mai_block.compression == Lzma) cpr_mai_block.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -2071,7 +2080,7 @@ void write_dvd_long_sector_blocks(aaruformat_context *ctx)
if(cpr_mai_block.compression == Lzma) fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream);
// Write data
const size_t written_bytes = fwrite(buffer, cpr_mai_block.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote DVD sector CPR/MAI block (%" PRIu64 " bytes)", cpr_mai_block.cmpLength);
@@ -2145,6 +2154,7 @@ void write_dvd_long_sector_blocks(aaruformat_context *ctx)
else
edc_block.cmpCrc64 = aaruf_crc64_data(buffer, edc_block.cmpLength);
length_to_write = edc_block.cmpLength;
if(edc_block.compression == Lzma) edc_block.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -2153,7 +2163,7 @@ void write_dvd_long_sector_blocks(aaruformat_context *ctx)
if(edc_block.compression == Lzma) fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream);
// Write data
const size_t written_bytes = fwrite(buffer, edc_block.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote DVD sector EDC block (%" PRIu64 " bytes)", edc_block.cmpLength);
@@ -2333,6 +2343,7 @@ static void write_dvd_title_key_decrypted_block(const aaruformat_context *ctx)
else
decrypted_title_key_block.cmpCrc64 = aaruf_crc64_data(buffer, decrypted_title_key_block.cmpLength);
const size_t length_to_write = decrypted_title_key_block.cmpLength;
if(decrypted_title_key_block.compression == Lzma) decrypted_title_key_block.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -2342,7 +2353,7 @@ static void write_dvd_title_key_decrypted_block(const aaruformat_context *ctx)
fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream);
// Write data
const size_t written_bytes = fwrite(buffer, decrypted_title_key_block.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote DVD decrypted title key block (%" PRIu64 " bytes)",
@@ -2502,6 +2513,7 @@ static void write_media_tags(const aaruformat_context *ctx)
else
tag_block.cmpCrc64 = aaruf_crc64_data(buffer, tag_block.cmpLength);
const size_t length_to_write = tag_block.cmpLength;
if(tag_block.compression == Lzma) tag_block.cmpLength += LZMA_PROPERTIES_LENGTH;
// Write header
@@ -2510,7 +2522,7 @@ static void write_media_tags(const aaruformat_context *ctx)
if(tag_block.compression == Lzma)
fwrite(lzma_properties, LZMA_PROPERTIES_LENGTH, 1, ctx->imageStream); // Write data
const size_t written_bytes = fwrite(buffer, tag_block.cmpLength, 1, ctx->imageStream);
const size_t written_bytes = fwrite(buffer, length_to_write, 1, ctx->imageStream);
if(written_bytes == 1)
{
TRACE("Successfully wrote media tag block type %d (%" PRIu64 " bytes)", tag_block.type,
@@ -3304,6 +3316,8 @@ static void write_metadata_block(aaruformat_context *ctx)
block_position = aligned_position;
}
memcpy(buffer, &ctx->metadata_block_header, sizeof(MetadataBlockHeader));
TRACE("Writing metadata block at position %ld", block_position);
if(fwrite(buffer, ctx->metadata_block_header.blockSize, 1, ctx->imageStream) == 1)

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@@ -576,7 +576,18 @@ enum MediaType : u32
ODC1200RE = 783,
ODC1500R = 784,
ODC3300R = 785,
ODC5500R = 786
ODC5500R = 786,
ECMA_322_1k = 800,
ECMA_322_512 = 801,
ISO_14517 = 802,
ISO_14517_512 = 803,
ISO_15041_512 = 804,
HSM650 = 805,
MetaFloppy_Mod_I = 820,
HF12 = 823,
HF24 = 824,
};
enum CompressionType : u16

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@@ -739,7 +739,6 @@ TEST_F(CreateImageFixture, create_audio_image)
EXPECT_EQ(close_result, AARUF_STATUS_OK) << "Failed to close image";
}
TEST_F(CreateImageFixture, create_image_negative_sectors)
{
char path[PATH_MAX];
@@ -855,3 +854,329 @@ TEST_F(CreateImageFixture, create_image_negative_sectors)
close_result = aaruf_close(context);
EXPECT_EQ(close_result, AARUF_STATUS_OK) << "Failed to close image";
}
TEST_F(CreateImageFixture, create_subchannel_uncompressed_image)
{
char path[PATH_MAX];
char filename[PATH_MAX];
getcwd(path, PATH_MAX);
snprintf(filename, PATH_MAX, "%s/data/audio.bin", path);
// Open audio file
FILE *f = fopen(filename, "rb");
ASSERT_NE(f, nullptr) << "Failed to open audio.bin data file";
// Get file size
fseek(f, 0, SEEK_END);
const long audio_size = ftell(f);
fseek(f, 0, SEEK_SET);
// Read entire audio file into buffer
uint8_t *buffer = static_cast<uint8_t *>(malloc(audio_size));
ASSERT_NE(buffer, nullptr) << "Failed to allocate memory for audio data";
size_t bytes_read = fread(buffer, 1, audio_size, f);
fclose(f);
ASSERT_EQ(bytes_read, static_cast<size_t>(audio_size)) << "Failed to read complete audio data";
// Calculate total size: three times the audio.bin size
const size_t total_size = audio_size * 3;
// Create image with default options (NULL for options means defaults)
void *context = aaruf_create("test_audio.aif", 11, 2352, total_size / 2352, 0, 0, "compress=false",
reinterpret_cast<const uint8_t *>("gtest"), 10, 0, 0, false);
// Verify that the file was successfully opened
ASSERT_NE(context, nullptr) << "Failed to create test_audio.aif";
// Set up a single audio track spanning the entire media
TrackEntry track;
memset(&track, 0, sizeof(TrackEntry));
track.sequence = 1; // Track 1
track.type = Audio; // Audio track type (0)
track.start = 0; // Start at sector 0
track.end = (audio_size * 3 / 2352) - 1; // End at last sector (inclusive)
track.pregap = 0; // No pregap
track.session = 1; // Session 1
memset(track.isrc, 0, 13); // No ISRC
track.flags = 0; // No special flags
int32_t track_result = aaruf_set_tracks(context, &track, 1);
ASSERT_EQ(track_result, AARUF_STATUS_OK) << "Failed to set tracks";
crc64_ctx *ctx = aaruf_crc64_init();
uint64_t generated_crc = 0;
// Write audio data three times using write_sector_long
size_t total_sectors = total_size / 2352;
for(size_t sector = 0; sector < total_sectors; ++sector)
{
// Calculate offset in the original audio buffer (wrap around after each iteration)
const size_t buffer_offset = (sector * 2352) % audio_size;
const int32_t write_result =
aaruf_write_sector_long(context, sector, false, buffer + buffer_offset, SectorStatusDumped, 2352);
ASSERT_EQ(write_result, AARUF_STATUS_OK) << "Failed to write sector " << sector;
aaruf_crc64_update(ctx, buffer + buffer_offset, 2352);
}
aaruf_crc64_final(ctx, &generated_crc);
aaruf_crc64_free(ctx);
// Write subchannel data for each sector and calculate CRC64
crc64_ctx *subchannel_ctx = aaruf_crc64_init();
uint64_t generated_subchannel_crc = 0;
uint8_t subchannel_data[96];
for(size_t sector = 0; sector < total_sectors; ++sector)
{
// Generate subchannel pattern based on sector number (96 bytes per sector)
for(size_t i = 0; i < 96; ++i) { subchannel_data[i] = static_cast<uint8_t>((sector * 96 + i) & 0xFF); }
const int32_t subchannel_result =
aaruf_write_sector_tag(context, sector, false, subchannel_data, 96, CdSectorSubchannelAaru);
ASSERT_EQ(subchannel_result, AARUF_STATUS_OK) << "Failed to write subchannel for sector " << sector;
// Update CRC64 with the subchannel data we just wrote
aaruf_crc64_update(subchannel_ctx, subchannel_data, 96);
}
aaruf_crc64_final(subchannel_ctx, &generated_subchannel_crc);
aaruf_crc64_free(subchannel_ctx);
// Close the image
int32_t close_result = aaruf_close(context);
ASSERT_EQ(close_result, AARUF_STATUS_OK) << "Failed to close image";
free(buffer);
// Reopen the image
context = aaruf_open("test_audio.aif", false, NULL);
ASSERT_NE(context, nullptr) << "Failed to open test_audio.aif";
// Get image info to verify it's a valid image
ImageInfo image_info;
const int32_t result = aaruf_get_image_info(context, &image_info);
ASSERT_EQ(result, AARUF_STATUS_OK) << "Failed to get image info";
// Basic sanity checks on the image info
ASSERT_EQ(image_info.HasPartitions, true) << "Image should not have partitions";
ASSERT_EQ(image_info.HasSessions, true) << "Image should not have sessions";
ASSERT_EQ(image_info.Sectors, total_sectors) << "Unexpected number of sectors";
ASSERT_EQ(image_info.SectorSize, 2352) << "Unexpected sector size";
ASSERT_STREQ(image_info.Version, "2.0") << "Unexpected image version";
ASSERT_STREQ(image_info.Application, "gtest") << "Unexpected application name";
ASSERT_STREQ(image_info.ApplicationVersion, "0.0") << "Unexpected application version";
ASSERT_EQ(image_info.MediaType, 11) << "Unexpected media type";
ASSERT_EQ(image_info.MetadataMediaType, 0) << "Unexpected metadata media type";
ctx = aaruf_crc64_init();
uint64_t crc = 0;
for(size_t i = 0; i < total_sectors; i++)
{
uint8_t sector_buffer[2352];
uint32_t length = sizeof(sector_buffer);
uint8_t sector_status = 0;
const int32_t read_result = aaruf_read_sector_long(context, i, false, sector_buffer, &length, &sector_status);
EXPECT_EQ(read_result, AARUF_STATUS_OK) << "Failed to read sector " << i;
EXPECT_EQ(length, 2352U) << "Unexpected length for sector " << i;
aaruf_crc64_update(ctx, sector_buffer, 2352);
}
aaruf_crc64_final(ctx, &crc);
aaruf_crc64_free(ctx);
ASSERT_EQ(crc, generated_crc) << "Unexpected CRC64 for image data";
// Read back and verify subchannel data
crc64_ctx *subchannel_read_ctx = aaruf_crc64_init();
uint64_t read_subchannel_crc = 0;
for(size_t i = 0; i < total_sectors; i++)
{
uint8_t subchannel_buffer[96];
uint32_t subchannel_length = sizeof(subchannel_buffer);
const int32_t subchannel_read_result =
aaruf_read_sector_tag(context, i, false, subchannel_buffer, &subchannel_length, CdSectorSubchannelAaru);
EXPECT_EQ(subchannel_read_result, AARUF_STATUS_OK) << "Failed to read subchannel for sector " << i;
EXPECT_EQ(subchannel_length, 96U) << "Unexpected subchannel length for sector " << i;
aaruf_crc64_update(subchannel_read_ctx, subchannel_buffer, 96);
}
aaruf_crc64_final(subchannel_read_ctx, &read_subchannel_crc);
aaruf_crc64_free(subchannel_read_ctx);
ASSERT_EQ(read_subchannel_crc, generated_subchannel_crc) << "Unexpected CRC64 for subchannel data";
// Close the image
close_result = aaruf_close(context);
EXPECT_EQ(close_result, AARUF_STATUS_OK) << "Failed to close image";
}
TEST_F(CreateImageFixture, create_subchannel_compressed_image)
{
char path[PATH_MAX];
char filename[PATH_MAX];
getcwd(path, PATH_MAX);
snprintf(filename, PATH_MAX, "%s/data/audio.bin", path);
// Open audio file
FILE *f = fopen(filename, "rb");
ASSERT_NE(f, nullptr) << "Failed to open audio.bin data file";
// Get file size
fseek(f, 0, SEEK_END);
const long audio_size = ftell(f);
fseek(f, 0, SEEK_SET);
// Read entire audio file into buffer
uint8_t *buffer = static_cast<uint8_t *>(malloc(audio_size));
ASSERT_NE(buffer, nullptr) << "Failed to allocate memory for audio data";
size_t bytes_read = fread(buffer, 1, audio_size, f);
fclose(f);
ASSERT_EQ(bytes_read, static_cast<size_t>(audio_size)) << "Failed to read complete audio data";
// Calculate total size: three times the audio.bin size
const size_t total_size = audio_size * 3;
// Create image with default options (NULL for options means defaults)
void *context = aaruf_create("test_audio.aif", 11, 2352, total_size / 2352, 0, 0, "compress=true",
reinterpret_cast<const uint8_t *>("gtest"), 10, 0, 0, false);
// Verify that the file was successfully opened
ASSERT_NE(context, nullptr) << "Failed to create test_audio.aif";
// Set up a single audio track spanning the entire media
TrackEntry track;
memset(&track, 0, sizeof(TrackEntry));
track.sequence = 1; // Track 1
track.type = Audio; // Audio track type (0)
track.start = 0; // Start at sector 0
track.end = (audio_size * 3 / 2352) - 1; // End at last sector (inclusive)
track.pregap = 0; // No pregap
track.session = 1; // Session 1
memset(track.isrc, 0, 13); // No ISRC
track.flags = 0; // No special flags
int32_t track_result = aaruf_set_tracks(context, &track, 1);
ASSERT_EQ(track_result, AARUF_STATUS_OK) << "Failed to set tracks";
crc64_ctx *ctx = aaruf_crc64_init();
uint64_t generated_crc = 0;
// Write audio data three times using write_sector_long
size_t total_sectors = total_size / 2352;
for(size_t sector = 0; sector < total_sectors; ++sector)
{
// Calculate offset in the original audio buffer (wrap around after each iteration)
const size_t buffer_offset = (sector * 2352) % audio_size;
const int32_t write_result =
aaruf_write_sector_long(context, sector, false, buffer + buffer_offset, SectorStatusDumped, 2352);
ASSERT_EQ(write_result, AARUF_STATUS_OK) << "Failed to write sector " << sector;
aaruf_crc64_update(ctx, buffer + buffer_offset, 2352);
}
aaruf_crc64_final(ctx, &generated_crc);
aaruf_crc64_free(ctx);
// Write subchannel data for each sector and calculate CRC64
crc64_ctx *subchannel_ctx = aaruf_crc64_init();
uint64_t generated_subchannel_crc = 0;
uint8_t subchannel_data[96];
for(size_t sector = 0; sector < total_sectors; ++sector)
{
// Generate subchannel pattern based on sector number (96 bytes per sector)
for(size_t i = 0; i < 96; ++i) { subchannel_data[i] = static_cast<uint8_t>((sector * 96 + i) & 0xFF); }
const int32_t subchannel_result =
aaruf_write_sector_tag(context, sector, false, subchannel_data, 96, CdSectorSubchannelAaru);
ASSERT_EQ(subchannel_result, AARUF_STATUS_OK) << "Failed to write subchannel for sector " << sector;
// Update CRC64 with the subchannel data we just wrote
aaruf_crc64_update(subchannel_ctx, subchannel_data, 96);
}
aaruf_crc64_final(subchannel_ctx, &generated_subchannel_crc);
aaruf_crc64_free(subchannel_ctx);
// Close the image
int32_t close_result = aaruf_close(context);
ASSERT_EQ(close_result, AARUF_STATUS_OK) << "Failed to close image";
free(buffer);
// Reopen the image
context = aaruf_open("test_audio.aif", false, NULL);
ASSERT_NE(context, nullptr) << "Failed to open test_audio.aif";
// Get image info to verify it's a valid image
ImageInfo image_info;
const int32_t result = aaruf_get_image_info(context, &image_info);
ASSERT_EQ(result, AARUF_STATUS_OK) << "Failed to get image info";
// Basic sanity checks on the image info
ASSERT_EQ(image_info.HasPartitions, true) << "Image should not have partitions";
ASSERT_EQ(image_info.HasSessions, true) << "Image should not have sessions";
ASSERT_EQ(image_info.Sectors, total_sectors) << "Unexpected number of sectors";
ASSERT_EQ(image_info.SectorSize, 2352) << "Unexpected sector size";
ASSERT_STREQ(image_info.Version, "2.0") << "Unexpected image version";
ASSERT_STREQ(image_info.Application, "gtest") << "Unexpected application name";
ASSERT_STREQ(image_info.ApplicationVersion, "0.0") << "Unexpected application version";
ASSERT_EQ(image_info.MediaType, 11) << "Unexpected media type";
ASSERT_EQ(image_info.MetadataMediaType, 0) << "Unexpected metadata media type";
ctx = aaruf_crc64_init();
uint64_t crc = 0;
for(size_t i = 0; i < total_sectors; i++)
{
uint8_t sector_buffer[2352];
uint32_t length = sizeof(sector_buffer);
uint8_t sector_status = 0;
const int32_t read_result = aaruf_read_sector_long(context, i, false, sector_buffer, &length, &sector_status);
EXPECT_EQ(read_result, AARUF_STATUS_OK) << "Failed to read sector " << i;
EXPECT_EQ(length, 2352U) << "Unexpected length for sector " << i;
aaruf_crc64_update(ctx, sector_buffer, 2352);
}
aaruf_crc64_final(ctx, &crc);
aaruf_crc64_free(ctx);
ASSERT_EQ(crc, generated_crc) << "Unexpected CRC64 for image data";
// Read back and verify subchannel data
crc64_ctx *subchannel_read_ctx = aaruf_crc64_init();
uint64_t read_subchannel_crc = 0;
for(size_t i = 0; i < total_sectors; i++)
{
uint8_t subchannel_buffer[96];
uint32_t subchannel_length = sizeof(subchannel_buffer);
const int32_t subchannel_read_result =
aaruf_read_sector_tag(context, i, false, subchannel_buffer, &subchannel_length, CdSectorSubchannelAaru);
EXPECT_EQ(subchannel_read_result, AARUF_STATUS_OK) << "Failed to read subchannel for sector " << i;
EXPECT_EQ(subchannel_length, 96U) << "Unexpected subchannel length for sector " << i;
aaruf_crc64_update(subchannel_read_ctx, subchannel_buffer, 96);
}
aaruf_crc64_final(subchannel_read_ctx, &read_subchannel_crc);
aaruf_crc64_free(subchannel_read_ctx);
ASSERT_EQ(read_subchannel_crc, generated_subchannel_crc) << "Unexpected CRC64 for subchannel data";
// Close the image
close_result = aaruf_close(context);
EXPECT_EQ(close_result, AARUF_STATUS_OK) << "Failed to close image";
}

View File

@@ -24,14 +24,14 @@
char *byte_array_to_hex_string(const unsigned char *array, int array_size)
{
char *hex_string = NULL;
int j = 0;
int j = 0;
hex_string = malloc(array_size * 2 + 1);
if(hex_string == NULL) return NULL;
j = 0;
for (int i = 0; i < array_size; i++)
for(int i = 0; i < array_size; i++)
{
hex_string[j] = (array[i] >> 4) + '0';
if(hex_string[j] > '9') hex_string[j] += 0x7;
@@ -1109,6 +1109,84 @@ const char *media_type_to_string(MediaType type)
case VideoNowXp:
return "VideoNow XP";
// Iomega, types 750 to 759
case Bernoulli10:
return "Bernoulli Box (10Mb)";
case Bernoulli20:
return "Bernoulli Box (20Mb)";
case BernoulliBox2_20:
return "Bernoulli Box II (20Mb)";
// Kodak, types 760 to 769
case KodakVerbatim3:
return "Kodak/Verbatim (3Mb)";
case KodakVerbatim6:
return "Kodak/Verbatim (6Mb)";
case KodakVerbatim12:
return "Kodak/Verbatim (12Mb)";
// Sony and Panasonic Blu-ray derived, types 770 to 799
case ProfessionalDisc:
return "Professional Disc for video";
case ProfessionalDiscDual:
return "Professional Disc for video";
case ProfessionalDiscTriple:
return "Professional Disc for video";
case ProfessionalDiscQuad:
return "Professional Disc for video";
case PDD:
return "Professional Disc for DATA";
case PDD_WORM:
return "Professional Disc for DATA";
case ArchivalDisc:
return "Archival Disc";
case ArchivalDisc2:
return "Archival Disc";
case ArchivalDisc3:
return "Archival Disc";
case ODC300R:
return "Optical Disc archive";
case ODC300RE:
return "Optical Disc archive";
case ODC600R:
return "Optical Disc archive";
case ODC600RE:
return "Optical Disc archive";
case ODC1200RE:
return "Optical Disc archive";
case ODC1500R:
return "Optical Disc archive";
case ODC3300R:
return "Optical Disc archive";
case ODC5500R:
return "Optical Disc archive";
// Magneto-optical, types 800 to 819
case ECMA_322_1k:
return "5,25\", M.O., 4383356 sectors, 1024 bytes/sector, ECMA-322, ISO 22092, 9.1Gb/cart";
case ECMA_322_512:
return "5,25\", M.O., ??????? sectors, 512 bytes/sector, ECMA-322, ISO 22092, 9.1Gb/cart";
case ISO_14517:
return "5,25\", M.O., 1273011 sectors, 1024 bytes/sector, ISO 14517, 2.6Gb/cart";
case ISO_14517_512:
return "5,25\", M.O., 2244958 sectors, 512 bytes/sector, ISO 14517, 2.3Gb/cart";
case ISO_15041_512:
return "3,5\", M.O., 1041500 sectors, 512 bytes/sector, ISO 15041, 540Mb/cart";
case HSM650:
return "Sony HyperStorage";
// More floppy formats, types 820 to deprecated
case MetaFloppy_Mod_I:
return "5.25\", SS, DD, 35 tracks, 16 spt, 256 bytes/sector, MFM, 48 tpi, ???rpm";
case HF12:
return "HyperFlex (12Mb)";
case HF24:
return "HyperFlex (24Mb)";
case AtariLynxCard:
return "Atari Lynx card";
case AtariJaguarCartridge:
return "Atari Jaguar cartridge";
default:
return "Unknown Media Type";
}

View File

@@ -48,7 +48,10 @@ static const char *format_filetime(uint64_t filetime)
snprintf(buf, sizeof(buf), "%04d-%02d-%02d %02d:%02d:%02d", st.wYear, st.wMonth, st.wDay, st.wHour, st.wMinute,
st.wSecond);
}
else { snprintf(buf, sizeof(buf), "%llu", filetime); }
else
{
snprintf(buf, sizeof(buf), "%llu", filetime);
}
return buf;
#else
time_t t;
@@ -132,285 +135,272 @@ int info(const char *path)
int32_t sequence = 0;
int32_t lastSequence = 0;
printf("Metadata block:\n");
if(aaruf_get_media_sequence(ctx, &sequence, &lastSequence) == AARUF_STATUS_OK && sequence > 0)
{
printf("Metadata block:\n");
printf("\tMedia is no. %d in a set of %d media\n", sequence, lastSequence);
int32_t length = 0;
if(aaruf_get_creator(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
}
int32_t length = 0;
if(aaruf_get_creator(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_creator(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_creator(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tCreator: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tCreator: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_comments(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
length = 0;
if(aaruf_get_comments(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_comments(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_comments(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tComments: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tComments: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_media_title(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
length = 0;
if(aaruf_get_media_title(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_media_title(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_media_title(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia title: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia title: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_media_manufacturer(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
length = 0;
if(aaruf_get_media_manufacturer(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_media_manufacturer(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_media_manufacturer(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia manufacturer: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia manufacturer: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_media_model(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
length = 0;
if(aaruf_get_media_model(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_media_model(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_media_model(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia model: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia model: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_media_serial_number(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
length = 0;
if(aaruf_get_media_serial_number(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_media_serial_number(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_media_serial_number(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia serial number: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia serial number: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_media_barcode(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
length = 0;
if(aaruf_get_media_barcode(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_media_barcode(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_media_barcode(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia barcode: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia barcode: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_media_part_number(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
length = 0;
if(aaruf_get_media_part_number(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_media_part_number(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_media_part_number(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia part number: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tMedia part number: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_drive_manufacturer(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
length = 0;
if(aaruf_get_drive_manufacturer(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_drive_manufacturer(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_drive_manufacturer(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tDrive manufacturer: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tDrive manufacturer: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_drive_model(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
length = 0;
if(aaruf_get_drive_model(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_drive_model(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_drive_model(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tDrive model: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tDrive model: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_drive_serial_number(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
length = 0;
if(aaruf_get_drive_serial_number(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_drive_serial_number(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_drive_serial_number(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tDrive serial number: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tDrive serial number: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_drive_firmware_revision(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
length = 0;
if(aaruf_get_drive_firmware_revision(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
if(aaruf_get_drive_firmware_revision(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
if(aaruf_get_drive_firmware_revision(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
strBuffer = malloc(length + 1);
if(strBuffer != NULL)
{
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length,
&u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tDrive firmware revision: %s\n", strBuffer);
free(strBuffer);
}
memset(strBuffer, 0, length + 1);
u_error_code = U_ZERO_ERROR;
ucnv_convert(NULL, "UTF-16LE", strBuffer, length, (const char *)utf16Buffer, length, &u_error_code);
if(u_error_code == U_ZERO_ERROR) printf("\tDrive firmware revision: %s\n", strBuffer);
free(strBuffer);
}
free(utf16Buffer);
}
free(utf16Buffer);
}
}
@@ -576,8 +566,7 @@ int info(const char *path)
printf("\tImage contains %llu sectors\n", ctx->image_info.Sectors);
printf("\tBiggest sector is %d bytes\n", ctx->image_info.SectorSize);
printf("\tImage version: %s\n", ctx->image_info.Version);
if(ctx->image_info.Application != NULL)
printf("\tApplication: %s\n", ctx->image_info.Application);
if(ctx->image_info.Application != NULL) printf("\tApplication: %s\n", ctx->image_info.Application);
if(ctx->image_info.ApplicationVersion != NULL)
printf("\tApplication version: %s\n", ctx->image_info.ApplicationVersion);
printf("\tCreation time: %s\n", format_filetime(ctx->image_info.CreationTime));
@@ -612,9 +601,7 @@ int info(const char *path)
{
printf("Media tags:\n");
HASH_ITER(hh, ctx->mediaTags, mediaTag, tmpMediaTag)
{
printf("\tType %d is %d bytes long.\n", mediaTag->type, mediaTag->length);
}
{ printf("\tType %d is %d bytes long.\n", mediaTag->type, mediaTag->length); }
}
aaruf_close(ctx);