Files
libaaruformat/tool/info.c
2026-01-01 13:37:19 +01:00

1044 lines
41 KiB
C

/*
* This file is part of the Aaru Data Preservation Suite.
* Copyright (c) 2019-2026 Natalia Portillo.
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License
* as published by the Free Software Foundation; either version 2
* of the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA.
*/
#include <errno.h>
#include <locale.h>
#include <stdarg.h>
#include <stdlib.h>
#include <string.h>
#include <time.h>
#include <unicode/ucnv.h>
#include <unicode/ustring.h>
#include <unistd.h>
#include <aaruformat.h>
#include <sys/types.h>
#include "aaruformattool.h"
#if defined(_WIN32) || defined(_WIN64)
#include <windows.h>
#endif
// ANSI color codes
#define ANSI_RESET "\033[0m"
#define ANSI_BOLD "\033[1m"
#define ANSI_CYAN "\033[36m"
#define ANSI_YELLOW "\033[33m"
#define ANSI_WHITE "\033[37m"
#define ANSI_BLUE "\033[34m"
#define ANSI_GREEN "\033[32m"
#define ANSI_RED "\033[31m"
// Color pair definitions
#define COLOR_HEADER 1
#define COLOR_LABEL 2
#define COLOR_VALUE 3
#define COLOR_BOX 4
#define COLOR_TITLE 5
#define COLOR_ERROR 6
#define COLOR_SUCCESS 7
// Check if we're in a terminal that supports colors
static bool use_colors = false;
// Initialize color support
static void init_display(void)
{
// Check if stdout is a terminal and TERM is set
if(isatty(STDOUT_FILENO))
{
const char *term = getenv("TERM");
// Enable colors if we have a terminal that likely supports them
// If TERM is not set but we're in a TTY, assume color support (common on macOS)
if(term == NULL)
{
// Default to enabling colors if we're in a TTY
use_colors = true;
}
else if(strstr(term, "color") != NULL || strstr(term, "xterm") != NULL || strstr(term, "screen") != NULL ||
strstr(term, "tmux") != NULL || strcmp(term, "linux") == 0 || strcmp(term, "vt100") == 0)
{
use_colors = true;
}
// Check for explicit no-color requests
if(getenv("NO_COLOR") != NULL) { use_colors = false; }
}
}
// Cleanup display (no-op for ANSI colors)
static void cleanup_display(void)
{
// Reset colors on exit
if(use_colors)
{
printf(ANSI_RESET);
fflush(stdout);
}
}
// Draw box top border with title
static void draw_box_top(const char *title, int color_pair)
{
if(use_colors)
{
// Select color based on color pair
switch(color_pair)
{
case COLOR_HEADER:
printf(ANSI_CYAN ANSI_BOLD);
break;
case COLOR_BOX:
printf(ANSI_BLUE ANSI_BOLD);
break;
default:
printf(ANSI_BOLD);
break;
}
}
printf("┌─ %s ", title);
// Calculate padding needed
int title_len = strlen(title);
int padding = 80 - 5 - title_len - 1; // 5 = "┌─ " + " ", -1 for "┐"
for(int i = 0; i < padding; i++) { printf(""); }
printf("\n");
if(use_colors) { printf(ANSI_RESET); }
}
// Draw box bottom border
static void draw_box_bottom(int color_pair)
{
if(use_colors)
{
// Select color based on color pair
switch(color_pair)
{
case COLOR_HEADER:
printf(ANSI_CYAN ANSI_BOLD);
break;
case COLOR_BOX:
printf(ANSI_BLUE ANSI_BOLD);
break;
default:
printf(ANSI_BOLD);
break;
}
}
printf("");
for(int i = 0; i < 77; i++) { printf(""); }
printf("\n\n");
if(use_colors) { printf(ANSI_RESET); }
}
// Print a formatted field with label and value, with proper padding
static void print_field(const char *label, const char *value, int label_width)
{
char line[78];
snprintf(line, sizeof(line), "%-*s %s", label_width, label, value);
if(use_colors)
{
printf(ANSI_BLUE "" ANSI_RESET);
printf(ANSI_YELLOW "%-*s" ANSI_RESET, label_width, label);
printf(" ");
int value_width = 76 - label_width - 1; // 76 = 78 - 2 (borders), -1 for space
printf(ANSI_WHITE "%-*s" ANSI_RESET, value_width, value);
printf(ANSI_BLUE "\n" ANSI_RESET);
}
else
{
printf("│ %-76s │\n", line);
}
}
// Converts Windows FILETIME (100ns intervals since 1601-01-01) to time_t (seconds since 1970-01-01)
static const char *format_filetime(uint64_t filetime)
{
static char buf[64];
const uint64_t EPOCH_DIFF = 116444736000000000ULL;
#if defined(_WIN32) || defined(_WIN64)
FILETIME ft;
SYSTEMTIME st;
ft.dwLowDateTime = (DWORD)(filetime & 0xFFFFFFFF);
ft.dwHighDateTime = (DWORD)(filetime >> 32);
if(FileTimeToSystemTime(&ft, &st))
{
// Format: YYYY-MM-DD HH:MM:SS
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);
}
return buf;
#else
time_t t;
struct tm tm_info;
if(filetime < EPOCH_DIFF)
{
snprintf(buf, sizeof(buf), "%llu", filetime);
return buf;
}
t = (time_t)((filetime - EPOCH_DIFF) / 10000000ULL);
if(localtime_r(&t, &tm_info))
strftime(buf, sizeof(buf), "%Y-%m-%d %H:%M:%S", &tm_info);
else
snprintf(buf, sizeof(buf), "%llu", filetime);
return buf;
#endif
}
int info(const char *path)
{
aaruformat_context *ctx = NULL;
char *strBuffer = NULL;
UErrorCode u_error_code = U_ZERO_ERROR;
uint32_t i = 0;
mediaTagEntry const *mediaTag = NULL;
mediaTagEntry const *tmpMediaTag = NULL;
// Initialize ncurses and colors
init_display();
ctx = aaruf_open(path, false, NULL);
if(ctx == NULL)
{
if(use_colors)
{
printf(ANSI_RED "\n❌ Error: Cannot open AaruFormat image (error code: %d)\n\n" ANSI_RESET, errno);
}
else
{
printf("\n❌ Error: Cannot open AaruFormat image (error code: %d)\n\n", errno);
}
cleanup_display();
return errno;
}
printf("\n");
if(use_colors)
{
printf(ANSI_GREEN ANSI_BOLD);
printf("================================================================================\n");
printf(" AARUFORMAT IMAGE INFORMATION\n");
printf("================================================================================\n\n");
printf(ANSI_RESET);
}
else
{
printf("================================================================================\n");
printf(" AARUFORMAT IMAGE INFORMATION\n");
printf("================================================================================\n\n");
}
// Image Format Section
draw_box_top("IMAGE FORMAT", COLOR_BOX);
char magic_str[9];
snprintf(magic_str, sizeof(magic_str), "%8.8s", (char *)&ctx->magic);
print_field("Magic:", magic_str, 20);
char version_str[32];
snprintf(version_str, sizeof(version_str), "%d.%d", ctx->header.imageMajorVersion, ctx->header.imageMinorVersion);
print_field("Format Version:", version_str, 20);
snprintf(version_str, sizeof(version_str), "%d.%d", ctx->library_major_version, ctx->library_minor_version);
print_field("Library Version:", version_str, 20);
char identifier_str[9];
snprintf(identifier_str, sizeof(identifier_str), "%8.8s", (char *)&ctx->header.identifier);
print_field("Identifier:", identifier_str, 20);
draw_box_bottom(COLOR_BOX);
// Creator Application Section
draw_box_top("CREATOR APPLICATION", COLOR_HEADER);
print_field("Application:", (char *)ctx->header.application, 20);
char app_version[32];
snprintf(app_version, sizeof(app_version), "%d.%d", ctx->header.applicationMajorVersion,
ctx->header.applicationMinorVersion);
print_field("Version:", app_version, 20);
print_field("Created:", format_filetime(ctx->header.creationTime), 20);
print_field("Last Modified:", format_filetime(ctx->header.lastWrittenTime), 20);
draw_box_bottom(COLOR_HEADER);
// Media Information Section
draw_box_top("MEDIA INFORMATION", COLOR_HEADER);
print_field("Media Type:", media_type_to_string(ctx->header.mediaType), 20);
uint32_t cylinders = 0;
uint32_t heads = 0;
uint32_t sectorsPerTrack = 0;
if(aaruf_get_geometry(ctx, &cylinders, &heads, &sectorsPerTrack) == AARUF_STATUS_OK)
{
char geometry[64];
snprintf(geometry, sizeof(geometry), "C:%u / H:%u / S:%u", cylinders, heads, sectorsPerTrack);
print_field("Geometry:", geometry, 20);
}
char image_size[64];
snprintf(image_size, sizeof(image_size), "%llu bytes", ctx->image_info.ImageSize);
print_field("Image Size:", image_size, 20);
char sectors[32];
snprintf(sectors, sizeof(sectors), "%llu", ctx->image_info.Sectors);
print_field("Total Sectors:", sectors, 20);
char sector_size[32];
snprintf(sector_size, sizeof(sector_size), "%d bytes", ctx->image_info.SectorSize);
print_field("Sector Size:", sector_size, 20);
print_field("Has Partitions:", ctx->image_info.HasPartitions ? "Yes" : "No", 20);
print_field("Has Sessions:", ctx->image_info.HasSessions ? "Yes" : "No", 20);
draw_box_bottom(COLOR_HEADER);
// DDT2 UserData Header Section (if using DDT v2)
if(ctx->ddt_version == 2 && ctx->user_data_ddt_header.identifier == DeDuplicationTable2)
{
draw_box_top("DDT2 USER DATA HEADER", COLOR_HEADER);
char ddt_type_str[32];
switch(ctx->user_data_ddt_header.type)
{
case UserData:
snprintf(ddt_type_str, sizeof(ddt_type_str), "UserData");
break;
default:
snprintf(ddt_type_str, sizeof(ddt_type_str), "%d", ctx->user_data_ddt_header.type);
break;
}
print_field("Data Type:", ddt_type_str, 25);
char compression_str[32];
switch(ctx->user_data_ddt_header.compression)
{
case None:
snprintf(compression_str, sizeof(compression_str), "None");
break;
case Lzma:
snprintf(compression_str, sizeof(compression_str), "LZMA");
break;
case Flac:
snprintf(compression_str, sizeof(compression_str), "FLAC");
break;
case LzmaClauniaSubchannelTransform:
snprintf(compression_str, sizeof(compression_str), "LZMA+CST");
break;
default:
snprintf(compression_str, sizeof(compression_str), "%d", ctx->user_data_ddt_header.compression);
break;
}
print_field("Compression:", compression_str, 25);
char levels_str[32];
snprintf(levels_str, sizeof(levels_str), "%u (current level: %u)", ctx->user_data_ddt_header.levels,
ctx->user_data_ddt_header.tableLevel);
print_field("Hierarchy Levels:", levels_str, 25);
if(ctx->user_data_ddt_header.previousLevelOffset > 0)
{
char prev_offset_str[32];
snprintf(prev_offset_str, sizeof(prev_offset_str), "0x%llX",
(unsigned long long)ctx->user_data_ddt_header.previousLevelOffset);
print_field("Previous Level Offset:", prev_offset_str, 25);
}
char blocks_str[64];
snprintf(blocks_str, sizeof(blocks_str), "%llu", (unsigned long long)ctx->user_data_ddt_header.blocks);
print_field("Total Blocks:", blocks_str, 25);
char negative_str[32];
snprintf(negative_str, sizeof(negative_str), "%u", ctx->user_data_ddt_header.negative);
print_field("Negative Sectors:", negative_str, 25);
char overflow_str[32];
snprintf(overflow_str, sizeof(overflow_str), "%u", ctx->user_data_ddt_header.overflow);
print_field("Overflow Sectors:", overflow_str, 25);
char user_sectors_str[64];
uint64_t user_sectors =
ctx->user_data_ddt_header.blocks - ctx->user_data_ddt_header.negative - ctx->user_data_ddt_header.overflow;
snprintf(user_sectors_str, sizeof(user_sectors_str), "%llu", (unsigned long long)user_sectors);
print_field("User Sectors:", user_sectors_str, 25);
if(ctx->user_data_ddt_header.start > 0)
{
char start_str[32];
snprintf(start_str, sizeof(start_str), "%llu", (unsigned long long)ctx->user_data_ddt_header.start);
print_field("Start Index:", start_str, 25);
}
char block_align_str[32];
snprintf(block_align_str, sizeof(block_align_str), "%u (2^%u = %u bytes)",
ctx->user_data_ddt_header.blockAlignmentShift, ctx->user_data_ddt_header.blockAlignmentShift,
1 << ctx->user_data_ddt_header.blockAlignmentShift);
print_field("Block Alignment Shift:", block_align_str, 25);
char data_shift_str[32];
snprintf(data_shift_str, sizeof(data_shift_str), "%u (2^%u = %u sectors/block)",
ctx->user_data_ddt_header.dataShift, ctx->user_data_ddt_header.dataShift,
1 << ctx->user_data_ddt_header.dataShift);
print_field("Data Shift:", data_shift_str, 25);
char table_shift_str[64];
if(ctx->user_data_ddt_header.tableShift > 0)
{
snprintf(table_shift_str, sizeof(table_shift_str), "%u (2^%u = %u sectors/entry)",
ctx->user_data_ddt_header.tableShift, ctx->user_data_ddt_header.tableShift,
1 << ctx->user_data_ddt_header.tableShift);
}
else
{
snprintf(table_shift_str, sizeof(table_shift_str), "0 (single-level)");
}
print_field("Table Shift:", table_shift_str, 25);
char entries_str[32];
snprintf(entries_str, sizeof(entries_str), "%llu", (unsigned long long)ctx->user_data_ddt_header.entries);
print_field("Entries:", entries_str, 25);
char length_str[64];
snprintf(length_str, sizeof(length_str), "%llu bytes (compressed: %llu bytes)",
(unsigned long long)ctx->user_data_ddt_header.length,
(unsigned long long)ctx->user_data_ddt_header.cmpLength);
print_field("Table Size:", length_str, 25);
char crc_str[64];
snprintf(crc_str, sizeof(crc_str), "0x%016llX", (unsigned long long)ctx->user_data_ddt_header.crc64);
print_field("CRC64 (uncompressed):", crc_str, 25);
snprintf(crc_str, sizeof(crc_str), "0x%016llX", (unsigned long long)ctx->user_data_ddt_header.cmpCrc64);
print_field("CRC64 (compressed):", crc_str, 25);
draw_box_bottom(COLOR_HEADER);
}
// Metadata Section
int32_t sequence = 0;
int32_t lastSequence = 0;
bool hasMetadata = false;
int32_t length = 0;
// Check if we have any metadata
if((aaruf_get_media_sequence(ctx, &sequence, &lastSequence) == AARUF_STATUS_OK && sequence > 0) ||
aaruf_get_creator(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL ||
aaruf_get_comments(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL ||
aaruf_get_media_title(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL ||
aaruf_get_media_manufacturer(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL ||
aaruf_get_media_model(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL ||
aaruf_get_media_serial_number(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL ||
aaruf_get_media_barcode(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL ||
aaruf_get_media_part_number(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL ||
aaruf_get_drive_manufacturer(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL ||
aaruf_get_drive_model(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL ||
aaruf_get_drive_serial_number(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL ||
aaruf_get_drive_firmware_revision(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL)
{
hasMetadata = true;
}
if(hasMetadata)
{
draw_box_top("METADATA", COLOR_HEADER);
if(aaruf_get_media_sequence(ctx, &sequence, &lastSequence) == AARUF_STATUS_OK && sequence > 0)
{
char seq_str[32];
snprintf(seq_str, sizeof(seq_str), "%d of %d", sequence, lastSequence);
print_field("Media Sequence:", seq_str, 20);
}
length = 0;
if(aaruf_get_creator(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
if(aaruf_get_creator(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Creator:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
length = 0;
if(aaruf_get_comments(ctx, NULL, &length) == AARUF_ERROR_BUFFER_TOO_SMALL && length > 0)
{
uint8_t *utf16Buffer = malloc(length);
if(utf16Buffer != NULL)
{
if(aaruf_get_comments(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Comments:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
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)
{
if(aaruf_get_media_title(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Media Title:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
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)
{
if(aaruf_get_media_manufacturer(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Media Manufacturer:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
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)
{
if(aaruf_get_media_model(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Media Model:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
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)
{
if(aaruf_get_media_serial_number(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Media Serial:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
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)
{
if(aaruf_get_media_barcode(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Media Barcode:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
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)
{
if(aaruf_get_media_part_number(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Media Part Number:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
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)
{
if(aaruf_get_drive_manufacturer(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Drive Manufacturer:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
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)
{
if(aaruf_get_drive_model(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Drive Model:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
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)
{
if(aaruf_get_drive_serial_number(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Drive Serial:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
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)
{
if(aaruf_get_drive_firmware_revision(ctx, utf16Buffer, &length) == AARUF_STATUS_OK)
{
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) print_field("Drive Firmware:", strBuffer, 20);
free(strBuffer);
}
}
free(utf16Buffer);
}
}
draw_box_bottom(COLOR_HEADER);
}
// Tracks Section
if(ctx->tracks_header.identifier == TracksBlock && ctx->tracks_header.entries > 0)
{
char title[64];
snprintf(title, sizeof(title), "TRACKS (%u total)", ctx->tracks_header.entries);
draw_box_top(title, COLOR_HEADER);
for(i = 0; i < ctx->tracks_header.entries && i < 20; i++) // Limit to first 20 tracks
{
char track_info[128];
snprintf(track_info, sizeof(track_info), "Track #%-2d: Seq=%d Type=%d Start=%lld End=%lld Session=%d",
i + 1, ctx->track_entries[i].sequence, ctx->track_entries[i].type, ctx->track_entries[i].start,
ctx->track_entries[i].end, ctx->track_entries[i].session);
print_field("", track_info, 0);
}
if(ctx->tracks_header.entries > 20)
{
char more_info[64];
snprintf(more_info, sizeof(more_info), "... and %u more track(s)", ctx->tracks_header.entries - 20);
print_field("", more_info, 0);
}
draw_box_bottom(COLOR_HEADER);
}
// Dump Hardware Section
if(ctx->dump_hardware_header.identifier == DumpHardwareBlock && ctx->dump_hardware_header.entries > 0)
{
char title[64];
snprintf(title, sizeof(title), "DUMP HARDWARE (%u device(s))", ctx->dump_hardware_header.entries);
draw_box_top(title, COLOR_HEADER);
for(i = 0; i < ctx->dump_hardware_header.entries; i++)
{
char device_label[32];
snprintf(device_label, sizeof(device_label), "Device #%d:", i + 1);
print_field(device_label, "", 20);
if(ctx->dump_hardware_entries_with_data[i].entry.manufacturerLength > 0)
{
strBuffer = malloc(ctx->dump_hardware_entries_with_data[i].entry.manufacturerLength + 1);
memset(strBuffer, 0, ctx->dump_hardware_entries_with_data[i].entry.manufacturerLength + 1);
ucnv_convert(NULL, "UTF-8", strBuffer,
(int)ctx->dump_hardware_entries_with_data[i].entry.manufacturerLength,
(char *)ctx->dump_hardware_entries_with_data[i].manufacturer,
(int)ctx->dump_hardware_entries_with_data[i].entry.manufacturerLength, &u_error_code);
print_field(" Manufacturer:", strBuffer, 20);
free(strBuffer);
}
if(ctx->dump_hardware_entries_with_data[i].entry.modelLength > 0)
{
strBuffer = malloc(ctx->dump_hardware_entries_with_data[i].entry.modelLength + 1);
memset(strBuffer, 0, ctx->dump_hardware_entries_with_data[i].entry.modelLength + 1);
ucnv_convert(NULL, "UTF-8", strBuffer, (int)ctx->dump_hardware_entries_with_data[i].entry.modelLength,
(char *)ctx->dump_hardware_entries_with_data[i].model,
(int)ctx->dump_hardware_entries_with_data[i].entry.modelLength, &u_error_code);
print_field(" Model:", strBuffer, 20);
free(strBuffer);
}
if(ctx->dump_hardware_entries_with_data[i].entry.softwareNameLength > 0)
{
strBuffer = malloc(ctx->dump_hardware_entries_with_data[i].entry.softwareNameLength + 1);
memset(strBuffer, 0, ctx->dump_hardware_entries_with_data[i].entry.softwareNameLength + 1);
ucnv_convert(NULL, "UTF-8", strBuffer,
(int)ctx->dump_hardware_entries_with_data[i].entry.softwareNameLength,
(char *)ctx->dump_hardware_entries_with_data[i].softwareName,
(int)ctx->dump_hardware_entries_with_data[i].entry.softwareNameLength, &u_error_code);
print_field(" Software:", strBuffer, 20);
free(strBuffer);
}
if(ctx->dump_hardware_entries_with_data[i].entry.extents > 0 &&
ctx->dump_hardware_entries_with_data[i].entry.extents <= 3)
{
for(uint32_t j = 0; j < ctx->dump_hardware_entries_with_data[i].entry.extents; j++)
{
char extent_str[80];
snprintf(extent_str, sizeof(extent_str), "%llu - %llu",
ctx->dump_hardware_entries_with_data[i].extents[j].start,
ctx->dump_hardware_entries_with_data[i].extents[j].end);
print_field(" Extent:", extent_str, 20);
}
}
else if(ctx->dump_hardware_entries_with_data[i].entry.extents > 3)
{
char extent_str[80];
snprintf(extent_str, sizeof(extent_str), "%u extent(s)",
ctx->dump_hardware_entries_with_data[i].entry.extents);
print_field(" Extents:", extent_str, 20);
}
}
draw_box_bottom(COLOR_HEADER);
}
if(ctx->flux_data_header.entries > 0) {
printf("Image contains %d flux captures.\n", ctx->flux_data_header.entries);
// Get flux capture metadata
size_t flux_captures_length = 0;
int32_t res = aaruf_get_flux_captures(ctx, NULL, &flux_captures_length);
if(res == AARUF_ERROR_BUFFER_TOO_SMALL)
{
uint8_t *flux_captures = malloc(flux_captures_length);
if(flux_captures != NULL)
{
res = aaruf_get_flux_captures(ctx, flux_captures, &flux_captures_length);
if(res == AARUF_STATUS_OK)
{
size_t capture_count = flux_captures_length / sizeof(FluxCaptureMeta);
const FluxCaptureMeta *captures = (const FluxCaptureMeta *)flux_captures;
printf("Flux capture details:\n");
// Calculate statistics
uint64_t min_index_res = UINT64_MAX;
uint64_t max_index_res = 0;
uint64_t min_data_res = UINT64_MAX;
uint64_t max_data_res = 0;
// Track unique heads and tracks
uint16_t *seen_tracks = calloc(capture_count, sizeof(uint16_t));
uint32_t *seen_heads = calloc(capture_count, sizeof(uint32_t));
uint32_t track_count = 0;
uint32_t head_count = 0;
for(size_t i = 0; i < capture_count; i++)
{
// Update resolution statistics
if(captures[i].indexResolution < min_index_res) min_index_res = captures[i].indexResolution;
if(captures[i].indexResolution > max_index_res) max_index_res = captures[i].indexResolution;
if(captures[i].dataResolution < min_data_res) min_data_res = captures[i].dataResolution;
if(captures[i].dataResolution > max_data_res) max_data_res = captures[i].dataResolution;
// Track unique tracks
bool track_seen = false;
for(uint32_t j = 0; j < track_count; j++)
{
if(seen_tracks[j] == captures[i].track)
{
track_seen = true;
break;
}
}
if(!track_seen)
{
seen_tracks[track_count++] = captures[i].track;
}
// Track unique heads
bool head_seen = false;
for(uint32_t j = 0; j < head_count; j++)
{
if(seen_heads[j] == captures[i].head)
{
head_seen = true;
break;
}
}
if(!head_seen)
{
seen_heads[head_count++] = captures[i].head;
}
}
free(seen_tracks);
free(seen_heads);
// Display statistics
printf("\tStatistics:\n");
printf("\t\tUnique heads: %u\n", head_count);
printf("\t\tUnique tracks: %u\n", track_count);
if(min_index_res != UINT64_MAX)
{
printf("\t\tIndex resolution: %llu - %llu picoseconds (%.3f - %.3f nanoseconds)\n",
(unsigned long long)min_index_res, (unsigned long long)max_index_res,
min_index_res / 1000.0, max_index_res / 1000.0);
}
if(min_data_res != UINT64_MAX)
{
printf("\t\tData resolution: %llu - %llu picoseconds (%.3f - %.3f nanoseconds)\n",
(unsigned long long)min_data_res, (unsigned long long)max_data_res,
min_data_res / 1000.0, max_data_res / 1000.0);
}
// Display individual captures
printf("\tCaptures:\n");
for(size_t i = 0; i < capture_count; i++)
{
printf("\t\tCapture %zu:\n", i + 1);
printf("\t\t\tHead: %u\n", captures[i].head);
printf("\t\t\tTrack: %u\n", captures[i].track);
printf("\t\t\tSubtrack: %u\n", captures[i].subtrack);
printf("\t\t\tCapture index: %u\n", captures[i].captureIndex);
printf("\t\t\tIndex resolution: %llu picoseconds (%.3f nanoseconds)\n",
(unsigned long long)captures[i].indexResolution,
captures[i].indexResolution / 1000.0);
printf("\t\t\tData resolution: %llu picoseconds (%.3f nanoseconds)\n",
(unsigned long long)captures[i].dataResolution,
captures[i].dataResolution / 1000.0);
}
}
free(flux_captures);
}
}
}
// Checksums Section
bool hasChecksums =
ctx->checksums.hasMd5 || ctx->checksums.hasSha1 || ctx->checksums.hasSha256 || ctx->checksums.hasSpamSum;
if(hasChecksums)
{
draw_box_top("CHECKSUMS", COLOR_HEADER);
if(ctx->checksums.hasMd5)
{
strBuffer = byte_array_to_hex_string(ctx->checksums.md5, MD5_DIGEST_LENGTH);
print_field("MD5:", strBuffer, 20);
free(strBuffer);
}
if(ctx->checksums.hasSha1)
{
strBuffer = byte_array_to_hex_string(ctx->checksums.sha1, SHA1_DIGEST_LENGTH);
print_field("SHA-1:", strBuffer, 20);
free(strBuffer);
}
if(ctx->checksums.hasSha256)
{
strBuffer = byte_array_to_hex_string(ctx->checksums.sha256, SHA256_DIGEST_LENGTH);
print_field("SHA-256:", strBuffer, 20);
free(strBuffer);
}
if(ctx->checksums.hasSpamSum) { print_field("SpamSum:", (char *)ctx->checksums.spamsum, 20); }
draw_box_bottom(COLOR_HEADER);
}
// Media Tags Section
if(ctx->mediaTags != NULL)
{
uint32_t tag_count = HASH_COUNT(ctx->mediaTags);
char title[64];
snprintf(title, sizeof(title), "MEDIA TAGS (%u total)", tag_count);
draw_box_top(title, COLOR_HEADER);
uint32_t displayed = 0;
HASH_ITER(hh, ctx->mediaTags, mediaTag, tmpMediaTag)
{
if(displayed < 20) // Limit display to first 20 tags
{
char tag_info[128];
snprintf(tag_info, sizeof(tag_info), "%s (%d bytes)",
media_tag_type_to_string((uint16_t)mediaTag->type), mediaTag->length);
print_field("", tag_info, 0);
displayed++;
}
}
if(tag_count > 20)
{
char more_info[64];
snprintf(more_info, sizeof(more_info), "... and %u more tag(s)", tag_count - 20);
print_field("", more_info, 0);
}
draw_box_bottom(COLOR_HEADER);
}
printf("================================================================================\n\n");
aaruf_close(ctx);
// Cleanup ncurses
cleanup_display();
return 0;
}