"1001011010010110100101101001011010010110100101101001011010010100"
// Hardware Register Addresses (Memory-mapped I/O)
#define HAL_BASE_ADDRESS        0xC0000000
#define ROM_CTRL_REG            (HAL_BASE_ADDRESS + 0x0000)
#define ROM_DATA_REG            (HAL_BASE_ADDRESS + 0x0004)
#define ROM_ADDR_REG            (HAL_BASE_ADDRESS + 0x0008)
#define ROM_STATUS_REG          (HAL_BASE_ADDRESS + 0x000C)

#define DUAL_PTR_CTRL_REG       (HAL_BASE_ADDRESS + 0x0100)
#define DUAL_PTR_ALPHA_REG      (HAL_BASE_ADDRESS + 0x0104)
#define DUAL_PTR_OMEGA_REG      (HAL_BASE_ADDRESS + 0x0108)
#define DUAL_PTR_SIZE_REG       (HAL_BASE_ADDRESS + 0x010C)
#define DUAL_PTR_CYCLE_REG      (HAL_BASE_ADDRESS + 0x0110)

#define NESW_CTRL_REG           (HAL_BASE_ADDRESS + 0x0200)
#define NESW_INPUT_REG          (HAL_BASE_ADDRESS + 0x0204)
#define NESW_OUTPUT_REG         (HAL_BASE_ADDRESS + 0x0208)
#define NESW_STATE_REG          (HAL_BASE_ADDRESS + 0x020C)
#define NESW_LUT_BASE           (HAL_BASE_ADDRESS + 0x0300)

#define SYNC_CTRL_REG           (HAL_BASE_ADDRESS + 0x0400)
#define SYNC_STATUS_REG         (HAL_BASE_ADDRESS + 0x0404)
#define SYNC_ALPHA_REG          (HAL_BASE_ADDRESS + 0x0408)
#define SYNC_OMEGA_REG          (HAL_BASE_ADDRESS + 0x040C)
#define SYNC_COUNT_REG          (HAL_BASE_ADDRESS + 0x0410)

#define CACHE_CTRL_REG          (HAL_BASE_ADDRESS + 0x0500)
#define CACHE_STATUS_REG        (HAL_BASE_ADDRESS + 0x0504)
#define CACHE_ALPHA_BASE        (HAL_BASE_ADDRESS + 0x0600)
#define CACHE_OMEGA_BASE        (HAL_BASE_ADDRESS + 0x0700)

#define IRQ_CTRL_REG            (HAL_BASE_ADDRESS + 0x0800)
#define IRQ_STATUS_REG          (HAL_BASE_ADDRESS + 0x0804)
#define IRQ_MASK_REG            (HAL_BASE_ADDRESS + 0x0808)

// Hardware Control Bits
#define ROM_CTRL_ENABLE         0x01
#define ROM_CTRL_RESET          0x02
#define ROM_CTRL_CHECKSUM       0x04
#define ROM_STATUS_READY        0x01
#define ROM_STATUS_ERROR        0x02

#define DUAL_PTR_ENABLE         0x01
#define DUAL_PTR_RESET          0x02
#define DUAL_PTR_CLOCK_EN       0x04
#define DUAL_PTR_AUTO_ADVANCE   0x08

#define NESW_ENABLE             0x01
#define NESW_RESET              0x02
#define NESW_AUTO_MODE          0x04

#define SYNC_ENABLE             0x01
#define SYNC_RESET              0x02
#define SYNC_IRQ_ENABLE         0x04
#define SYNC_STATUS_DETECTED    0x01

#define CACHE_ENABLE            0x01
#define CACHE_RESET             0x02
#define CACHE_STORM_ACTIVE      0x04

#define IRQ_SYNC_PULSE          0x01
#define IRQ_CACHE_FULL          0x02
#define IRQ_ROM_ERROR           0x04
#define IRQ_SYSTEM_ERROR        0x08

// Hardware Status Structure
class CHardwareStatus
{
  Bool rom_available;
  Bool dual_ptr_available;
  Bool nesw_available;
  Bool sync_available;
  Bool cache_available;
  Bool irq_available;
  U32 hardware_version;
  U32 firmware_version;
};

// Hardware Performance Counters
class CPerformanceCounters
{
  U64 rom_reads;
  U64 dual_ptr_cycles;
  U64 nesw_transforms;
  U64 sync_detections;
  U64 cache_storms;
  U64 interrupts_handled;
  U64 hardware_errors;
};

// Global Hardware State
CHardwareStatus g_hw_status;
CPerformanceCounters g_perf_counters;
Bool g_hardware_initialized = FALSE;
Bool g_simulation_mode = FALSE;

// Low-level hardware register access functions
U32 HAL_ReadReg(U32 address)
{
  if (g_simulation_mode)
  {
    // Simulate hardware register reads
    switch (address)
    {
      case ROM_STATUS_REG:
        return ROM_STATUS_READY;
      case DUAL_PTR_ALPHA_REG:
        return g_dual_pointer.pointer_alpha;
      case DUAL_PTR_OMEGA_REG:
        return g_dual_pointer.pointer_omega;
      case SYNC_STATUS_REG:
        return g_sync_detector.sync_pulse_active ? SYNC_STATUS_DETECTED : 0;
      default:
        return 0;
    }
  }
  else
  {
    // Direct hardware register access
    return *(U32*)address;
  }
}

U0 HAL_WriteReg(U32 address, U32 value)
{
  if (g_simulation_mode)
  {
    // Simulate hardware register writes
    switch (address)
    {
      case DUAL_PTR_ALPHA_REG:
        g_dual_pointer.pointer_alpha = value & 0xFFFF;
        break;
      case DUAL_PTR_OMEGA_REG:
        g_dual_pointer.pointer_omega = value & 0xFFFF;
        break;
      case NESW_INPUT_REG:
        // Simulate NESW transformation
        HAL_WriteReg(NESW_OUTPUT_REG, Transform_NESW(value & 0xFF, g_nesw_transform.current_state));
        break;
    }
  }
  else
  {
    // Direct hardware register access
    *(U32*)address = value;
  }
}

// Hardware Detection and Initialization
Bool HAL_DetectHardware()
{
  U32 test_value, read_value;
  
  "Detecting CARDENTIFIERS hardware...\n";
  
  // Test ROM controller
  test_value = 0x12345678;
  HAL_WriteReg(ROM_ADDR_REG, test_value);
  read_value = HAL_ReadReg(ROM_ADDR_REG);
  g_hw_status.rom_available = (read_value == test_value);
  
  // Test dual pointer controller
  test_value = 0xABCD;
  HAL_WriteReg(DUAL_PTR_ALPHA_REG, test_value);
  read_value = HAL_ReadReg(DUAL_PTR_ALPHA_REG);
  g_hw_status.dual_ptr_available = (read_value == test_value);
  
  // Test NESW transformer
  HAL_WriteReg(NESW_INPUT_REG, 0x55);
  read_value = HAL_ReadReg(NESW_OUTPUT_REG);
  g_hw_status.nesw_available = (read_value != 0x55); // Should be transformed
  
  // Test sync detector
  read_value = HAL_ReadReg(SYNC_STATUS_REG);
  g_hw_status.sync_available = ((read_value & 0xFF) != 0xFF); // Valid status register
  
  // Test cache controller
  HAL_WriteReg(CACHE_CTRL_REG, CACHE_RESET);
  read_value = HAL_ReadReg(CACHE_STATUS_REG);
  g_hw_status.cache_available = ((read_value & 0xFF) != 0xFF);
  
  // Test interrupt controller
  HAL_WriteReg(IRQ_MASK_REG, 0x0F);
  read_value = HAL_ReadReg(IRQ_MASK_REG);
  g_hw_status.irq_available = (read_value == 0x0F);
  
  // Read hardware version
  g_hw_status.hardware_version = HAL_ReadReg(HAL_BASE_ADDRESS + 0xFFC);
  g_hw_status.firmware_version = HAL_ReadReg(HAL_BASE_ADDRESS + 0xFF8);
  
  "Hardware detection results:\n";
  "  ROM Controller: %s\n", g_hw_status.rom_available ? "FOUND" : "NOT FOUND";
  "  Dual Pointer: %s\n", g_hw_status.dual_ptr_available ? "FOUND" : "NOT FOUND";
  "  NESW Transform: %s\n", g_hw_status.nesw_available ? "FOUND" : "NOT FOUND";
  "  Sync Detector: %s\n", g_hw_status.sync_available ? "FOUND" : "NOT FOUND";
  "  Cache Controller: %s\n", g_hw_status.cache_available ? "FOUND" : "NOT FOUND";
  "  IRQ Controller: %s\n", g_hw_status.irq_available ? "FOUND" : "NOT FOUND";
  
  return (g_hw_status.rom_available && g_hw_status.dual_ptr_available);
}

// ROM Hardware Interface
Bool HAL_ROM_Initialize()
{
  U32 status;
  U16 i;
  
  if (!g_hw_status.rom_available)
  {
    "ROM hardware not available, using software simulation\n";
    return TRUE; // Software fallback
  }
  
  "Initializing ROM hardware...\n";
  
  // Reset ROM controller
  HAL_WriteReg(ROM_CTRL_REG, ROM_CTRL_RESET);
  Sleep(10); // Wait for reset
  
  // Enable ROM controller
  HAL_WriteReg(ROM_CTRL_REG, ROM_CTRL_ENABLE);
  
  // Wait for ready status
  for (i = 0; i < 1000; i++)
  {
    status = HAL_ReadReg(ROM_STATUS_REG);
    if (status & ROM_STATUS_READY)
      break;
    Sleep(1);
  }
  
  if (!(status & ROM_STATUS_READY))
  {
    "ROM hardware initialization failed\n";
    return FALSE;
  }
  
  // Load ROM data
  for (i = 0; i < PALINDROME_ROM_SIZE; i++)
  {
    HAL_WriteReg(ROM_ADDR_REG, i);
    HAL_WriteReg(ROM_DATA_REG, g_palindrome_rom.data[i]);
  }
  
  // Verify checksum
  HAL_WriteReg(ROM_CTRL_REG, ROM_CTRL_ENABLE | ROM_CTRL_CHECKSUM);
  Sleep(10);
  
  status = HAL_ReadReg(ROM_STATUS_REG);
  if (status & ROM_STATUS_ERROR)
  {
    "ROM checksum verification failed\n";
    return FALSE;
  }
  
  g_perf_counters.rom_reads = 0;
  "ROM hardware initialized successfully\n";
  return TRUE;
}

U8 HAL_ROM_Read(U16 address)
{
  if (!g_hw_status.rom_available)
  {
    // Software fallback
    return g_palindrome_rom.data[address % PALINDROME_ROM_SIZE];
  }
  
  HAL_WriteReg(ROM_ADDR_REG, address);
  g_perf_counters.rom_reads++;
  return HAL_ReadReg(ROM_DATA_REG) & 0xFF;
}

// Dual Pointer Hardware Interface
Bool HAL_DualPointer_Initialize(U16 drive_size)
{
  if (!g_hw_status.dual_ptr_available)
  {
    "Dual pointer hardware not available, using software simulation\n";
    return TRUE;
  }
  
  "Initializing dual pointer hardware...\n";
  
  // Reset dual pointer controller
  HAL_WriteReg(DUAL_PTR_CTRL_REG, DUAL_PTR_RESET);
  Sleep(10);
  
  // Configure drive size
  HAL_WriteReg(DUAL_PTR_SIZE_REG, drive_size);
  
  // Initialize pointers
  HAL_WriteReg(DUAL_PTR_ALPHA_REG, 0);
  HAL_WriteReg(DUAL_PTR_OMEGA_REG, drive_size - 1);
  
  // Enable controller with auto-advance
  HAL_WriteReg(DUAL_PTR_CTRL_REG, DUAL_PTR_ENABLE | DUAL_PTR_CLOCK_EN | DUAL_PTR_AUTO_ADVANCE);
  
  g_perf_counters.dual_ptr_cycles = 0;
  "Dual pointer hardware initialized\n";
  return TRUE;
}

U0 HAL_DualPointer_GetValues(U16 *alpha, U16 *omega)
{
  if (!g_hw_status.dual_ptr_available)
  {
    // Software fallback
    *alpha = g_dual_pointer.pointer_alpha;
    *omega = g_dual_pointer.pointer_omega;
    return;
  }
  
  *alpha = HAL_ReadReg(DUAL_PTR_ALPHA_REG) & 0xFFFF;
  *omega = HAL_ReadReg(DUAL_PTR_OMEGA_REG) & 0xFFFF;
}

U64 HAL_DualPointer_GetCycleCount()
{
  if (!g_hw_status.dual_ptr_available)
  {
    return g_dual_pointer.cycle_count;
  }
  
  return HAL_ReadReg(DUAL_PTR_CYCLE_REG);
}

U0 HAL_DualPointer_Advance()
{
  if (!g_hw_status.dual_ptr_available)
  {
    // Software fallback
    AdvanceDualPointers();
    return;
  }
  
  // Hardware auto-advances, just increment counter
  g_perf_counters.dual_ptr_cycles++;
}

// NESW Transformation Hardware Interface
Bool HAL_NESW_Initialize()
{
  U16 i;
  U32 lut_addr;
  
  if (!g_hw_status.nesw_available)
  {
    "NESW hardware not available, using software simulation\n";
    return TRUE;
  }
  
  "Initializing NESW transformation hardware...\n";
  
  // Reset NESW controller
  HAL_WriteReg(NESW_CTRL_REG, NESW_RESET);
  Sleep(10);
  
  // Load lookup tables into hardware
  for (i = 0; i < 256; i++)
  {
    lut_addr = NESW_LUT_BASE + (NESW_NORTH * 256 + i) * 4;
    HAL_WriteReg(lut_addr, g_nesw_transform.lut_north[i]);
    
    lut_addr = NESW_LUT_BASE + (NESW_SOUTH * 256 + i) * 4;
    HAL_WriteReg(lut_addr, g_nesw_transform.lut_south[i]);
    
    lut_addr = NESW_LUT_BASE + (NESW_EAST * 256 + i) * 4;
    HAL_WriteReg(lut_addr, g_nesw_transform.lut_east[i]);
    
    lut_addr = NESW_LUT_BASE + (NESW_WEST * 256 + i) * 4;
    HAL_WriteReg(lut_addr, g_nesw_transform.lut_west[i]);
  }
  
  // Enable NESW controller
  HAL_WriteReg(NESW_CTRL_REG, NESW_ENABLE | NESW_AUTO_MODE);
  
  g_perf_counters.nesw_transforms = 0;
  "NESW transformation hardware initialized\n";
  return TRUE;
}

U8 HAL_NESW_Transform(U8 input, U8 nesw_state)
{
  if (!g_hw_status.nesw_available)
  {
    // Software fallback
    return Transform_NESW(input, nesw_state);
  }
  
  // Set transformation state
  HAL_WriteReg(NESW_STATE_REG, nesw_state);
  
  // Perform transformation
  HAL_WriteReg(NESW_INPUT_REG, input);
  
  g_perf_counters.nesw_transforms++;
  return HAL_ReadReg(NESW_OUTPUT_REG) & 0xFF;
}

// Synchronization Detection Hardware Interface
Bool HAL_Sync_Initialize()
{
  if (!g_hw_status.sync_available)
  {
    "Sync hardware not available, using software simulation\n";
    return TRUE;
  }
  
  "Initializing synchronization detection hardware...\n";
  
  // Reset sync detector
  HAL_WriteReg(SYNC_CTRL_REG, SYNC_RESET);
  Sleep(10);
  
  // Enable sync detector with interrupt
  HAL_WriteReg(SYNC_CTRL_REG, SYNC_ENABLE | SYNC_IRQ_ENABLE);
  
  g_perf_counters.sync_detections = 0;
  "Synchronization detection hardware initialized\n";
  return TRUE;
}

Bool HAL_Sync_CheckPulse(U8 *alpha, U8 *omega, U8 *transformed)
{
  U32 status;
  
  if (!g_hw_status.sync_available)
  {
    // Software fallback
    return CheckSynchronization();
  }
  
  status = HAL_ReadReg(SYNC_STATUS_REG);
  
  if (status & SYNC_STATUS_DETECTED)
  {
    *alpha = HAL_ReadReg(SYNC_ALPHA_REG) & 0xFF;
    *omega = HAL_ReadReg(SYNC_OMEGA_REG) & 0xFF;
    *transformed = HAL_NESW_Transform(*alpha, g_nesw_transform.current_state);
    
    g_perf_counters.sync_detections++;
    return TRUE;
  }
  
  return FALSE;
}

U64 HAL_Sync_GetCount()
{
  if (!g_hw_status.sync_available)
  {
    return g_sync_detector.sync_count;
  }
  
  return HAL_ReadReg(SYNC_COUNT_REG);
}

// Cache Storm Hardware Interface
Bool HAL_Cache_Initialize()
{
  if (!g_hw_status.cache_available)
  {
    "Cache hardware not available, using software simulation\n";
    return TRUE;
  }
  
  "Initializing cache storm hardware...\n";
  
  // Reset cache controller
  HAL_WriteReg(CACHE_CTRL_REG, CACHE_RESET);
  Sleep(10);
  
  // Enable cache controller
  HAL_WriteReg(CACHE_CTRL_REG, CACHE_ENABLE);
  
  g_perf_counters.cache_storms = 0;
  "Cache storm hardware initialized\n";
  return TRUE;
}

Bool HAL_Cache_InitiateStorm(U8 seed)
{
  U16 i;
  U32 alpha_addr, omega_addr;
  
  if (!g_hw_status.cache_available)
  {
    // Software fallback
    InitiateCacheStorm(seed);
    return TRUE;
  }
  
  // Load cache buffers
  for (i = 0; i < CACHE_STORM_BUFFER_SIZE; i++)
  {
    alpha_addr = CACHE_ALPHA_BASE + i * 4;
    omega_addr = CACHE_OMEGA_BASE + i * 4;
    
    HAL_WriteReg(alpha_addr, g_cache_storm.cache_alpha[i]);
    HAL_WriteReg(omega_addr, g_cache_storm.cache_omega[i]);
  }
  
  // Trigger cache storm
  HAL_WriteReg(CACHE_CTRL_REG, CACHE_ENABLE | CACHE_STORM_ACTIVE);
  
  g_perf_counters.cache_storms++;
  return TRUE;
}

// Interrupt Handling
U0 HAL_IRQ_Handler()
{
  U32 irq_status;
  
  if (!g_hw_status.irq_available)
    return;
    
  irq_status = HAL_ReadReg(IRQ_STATUS_REG);
  
  if (irq_status & IRQ_SYNC_PULSE)
  {
    "Hardware sync pulse detected!\n";
    // Handle sync pulse interrupt
    HAL_WriteReg(IRQ_STATUS_REG, IRQ_SYNC_PULSE); // Clear interrupt
  }
  
  if (irq_status & IRQ_CACHE_FULL)
  {
    "Cache buffer full interrupt\n";
    HAL_WriteReg(IRQ_STATUS_REG, IRQ_CACHE_FULL);
  }
  
  if (irq_status & IRQ_ROM_ERROR)
  {
    "ROM error interrupt\n";
    g_perf_counters.hardware_errors++;
    HAL_WriteReg(IRQ_STATUS_REG, IRQ_ROM_ERROR);
  }
  
  if (irq_status & IRQ_SYSTEM_ERROR)
  {
    "System error interrupt\n";
    g_perf_counters.hardware_errors++;
    HAL_WriteReg(IRQ_STATUS_REG, IRQ_SYSTEM_ERROR);
  }
  
  g_perf_counters.interrupts_handled++;
}

Bool HAL_IRQ_Initialize()
{
  if (!g_hw_status.irq_available)
  {
    "IRQ hardware not available\n";
    return TRUE;
  }
  
  "Initializing interrupt controller...\n";
  
  // Clear all pending interrupts
  HAL_WriteReg(IRQ_STATUS_REG, 0xFFFFFFFF);
  
  // Enable desired interrupts
  HAL_WriteReg(IRQ_MASK_REG, IRQ_SYNC_PULSE | IRQ_CACHE_FULL | IRQ_ROM_ERROR | IRQ_SYSTEM_ERROR);
  
  // Enable interrupt controller
  HAL_WriteReg(IRQ_CTRL_REG, 0x01);
  
  g_perf_counters.interrupts_handled = 0;
  g_perf_counters.hardware_errors = 0;
  
  "Interrupt controller initialized\n";
  return TRUE;
}

// Main Hardware Initialization
Bool HAL_Initialize(Bool force_simulation = FALSE)
{
  "Hardware Abstraction Layer Initialization\n";
  "========================================================\n";
  
  // Initialize performance counters
  g_perf_counters.rom_reads = 0;
  g_perf_counters.dual_ptr_cycles = 0;
  g_perf_counters.nesw_transforms = 0;
  g_perf_counters.sync_detections = 0;
  g_perf_counters.cache_storms = 0;
  g_perf_counters.interrupts_handled = 0;
  g_perf_counters.hardware_errors = 0;
  
  if (force_simulation)
  {
    "Forcing simulation mode\n";
    g_simulation_mode = TRUE;
    g_hw_status.rom_available = FALSE;
    g_hw_status.dual_ptr_available = FALSE;
    g_hw_status.nesw_available = FALSE;
    g_hw_status.sync_available = FALSE;
    g_hw_status.cache_available = FALSE;
    g_hw_status.irq_available = FALSE;
  }
  else
  {
    // Detect hardware
    if (!HAL_DetectHardware())
    {
      "Hardware detection failed, enabling simulation mode\n";
      g_simulation_mode = TRUE;
    }
  }
  
  // Initialize subsystems
  if (!HAL_ROM_Initialize())
  {
    "ROM initialization failed\n";
    return FALSE;
  }
  
  if (!HAL_DualPointer_Initialize(DRIVE_SIZE_DEFAULT))
  {
    "Dual pointer initialization failed\n";
    return FALSE;
  }
  
  if (!HAL_NESW_Initialize())
  {
    "NESW transformation initialization failed\n";
    return FALSE;
  }
  
  if (!HAL_Sync_Initialize())
  {
    "Synchronization detection initialization failed\n";
    return FALSE;
  }
  
  if (!HAL_Cache_Initialize())
  {
    "Cache storm initialization failed\n";
    return FALSE;
  }
  
  if (!HAL_IRQ_Initialize())
  {
    "Interrupt controller initialization failed\n";
    return FALSE;
  }
  
  g_hardware_initialized = TRUE;
  
  "Hardware abstraction layer initialized successfully\n";
  "Mode: %s\n", g_simulation_mode ? "SIMULATION" : "HARDWARE";
  
  return TRUE;
}

// Hardware Status and Diagnostics
U0 HAL_DisplayStatus()
{
  "Hardware Status\n";
  "=============================\n";
  "Mode: %s\n", g_simulation_mode ? "SIMULATION" : "HARDWARE";
  "Initialized: %s\n", g_hardware_initialized ? "YES" : "NO";
  "\nHardware Components:\n";
  "  ROM Controller: %s\n", g_hw_status.rom_available ? "AVAILABLE" : "NOT AVAILABLE";
  "  Dual Pointer: %s\n", g_hw_status.dual_ptr_available ? "AVAILABLE" : "NOT AVAILABLE";
  "  NESW Transform: %s\n", g_hw_status.nesw_available ? "AVAILABLE" : "NOT AVAILABLE";
  "  Sync Detector: %s\n", g_hw_status.sync_available ? "AVAILABLE" : "NOT AVAILABLE";
  "  Cache Controller: %s\n", g_hw_status.cache_available ? "AVAILABLE" : "NOT AVAILABLE";
  "  IRQ Controller: %s\n", g_hw_status.irq_available ? "AVAILABLE" : "NOT AVAILABLE";
  "\nPerformance Counters:\n";
  "  ROM Reads: %d\n", g_perf_counters.rom_reads;
  "  Dual Pointer Cycles: %d\n", g_perf_counters.dual_ptr_cycles;
  "  NESW Transforms: %d\n", g_perf_counters.nesw_transforms;
  "  Sync Detections: %d\n", g_perf_counters.sync_detections;
  "  Cache Storms: %d\n", g_perf_counters.cache_storms;
  "  Interrupts Handled: %d\n", g_perf_counters.interrupts_handled;
  "  Hardware Errors: %d\n", g_perf_counters.hardware_errors;
  "\n";
}

// Hardware-accelerated processing cycle
U0 HAL_ProcessCycle()
{
  U16 alpha, omega;
  U8 stream_alpha, stream_omega, transformed_alpha;
  Bool sync_detected;
  
  // Get current pointer values
  HAL_DualPointer_GetValues(&alpha, &omega);
  
  // Read data streams from ROM
  stream_alpha = HAL_ROM_Read(alpha * STATE_SIZE);
  stream_omega = HAL_ROM_Read(omega * STATE_SIZE);
  
  // Check for synchronization using hardware
  sync_detected = HAL_Sync_CheckPulse(&stream_alpha, &stream_omega, &transformed_alpha);
  
  if (sync_detected)
  {
    "Hardware sync pulse detected! Alpha=0x%02X, Omega=0x%02X\n", stream_alpha, stream_omega;
    
    // Initiate hardware cache storm
    HAL_Cache_InitiateStorm(stream_alpha);
    
    // Process imagination (software for now)
    ProcessImagination();
    CatalogueImagination();
  }
  
  // Advance pointers
  HAL_DualPointer_Advance();
}

// Test hardware functionality
U0 HAL_TestHardware()
{
  U16 i;
  U8 test_input, test_output;
  
  "Testing hardware functionality...\n";
  
  // Test NESW transformations
  "Testing NESW transformations:\n";
  for (i = 0; i < 4; i++)
  {
    test_input = 0x55;
    test_output = HAL_NESW_Transform(test_input, i);
    "  State %d: 0x%02X -> 0x%02X\n", i, test_input, test_output;
  }
  
  // Test ROM reads
  "Testing ROM reads:\n";
  for (i = 0; i < 8; i++)
  {
    test_output = HAL_ROM_Read(i);
    "  Address %d: 0x%02X\n", i, test_output;
  }
  
  // Test dual pointers
  "Testing dual pointers:\n";
  for (i = 0; i < 5; i++)
  {
    U16 alpha, omega;
    HAL_DualPointer_GetValues(&alpha, &omega);
    "  Cycle %d: Alpha=%d, Omega=%d\n", i, alpha, omega;
    HAL_DualPointer_Advance();
  }
  
  HAL_DisplayStatus();
}

// Initialize HAL in simulation mode by default
HAL_Initialize(TRUE);

"Hardware Abstraction Layer Loaded Successfully\n";
"Type 'HAL_TestHardware();' to test hardware functionality\n";
"Type 'HAL_DisplayStatus();' to view hardware status\n";
"Type 'HAL_ProcessCycle();' to run hardware-accelerated cycle\n";
"0110100101101001011010010110100101101001011010010110100101101011"