Update flask_server.py

This commit is contained in:
MacRimi
2025-10-14 23:16:56 +02:00
parent 998bfa0656
commit 325724ff85

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@@ -706,6 +706,21 @@ def get_storage_info():
def get_smart_data(disk_name): def get_smart_data(disk_name):
"""Get SMART data for a specific disk - Enhanced with multiple device type attempts""" """Get SMART data for a specific disk - Enhanced with multiple device type attempts"""
# --- Helpers internos ---
def _normalize_disk_path(disk_name: str) -> str:
"""Si es NVMe, usa /dev/nvmeX en lugar de /dev/nvmeXn1"""
if disk_name.startswith('nvme') and 'n' in disk_name:
base = disk_name.split('n', 1)[0] # nvme0n1 -> nvme0
return f'/dev/{base}'
return f'/dev/{disk_name}'
def _to_int(s, default=None):
"""Convierte a entero tolerando comas, espacios o hex"""
try:
return int(str(s).replace(',', '').replace('+', '').strip(), 0)
except Exception:
return default
smart_data = { smart_data = {
'temperature': 0, 'temperature': 0,
'health': 'unknown', 'health': 'unknown',
@@ -727,24 +742,18 @@ def get_smart_data(disk_name):
print(f"[v0] ===== Starting SMART data collection for /dev/{disk_name} =====") print(f"[v0] ===== Starting SMART data collection for /dev/{disk_name} =====")
devpath = _normalize_disk_path(disk_name)
try: try:
commands_to_try = [ commands_to_try = [
['smartctl', '-a', '-j', f'/dev/{disk_name}'], # JSON output (preferred) ['smartctl', '-a', '-j', devpath],
['smartctl', '-a', '-j', '-d', 'ata', f'/dev/{disk_name}'], # JSON with ATA device type ['smartctl', '-a', '-j', '-d', 'ata', devpath],
['smartctl', '-a', '-j', '-d', 'sat', f'/dev/{disk_name}'], # JSON with SAT device type ['smartctl', '-a', f'{devpath}'],
['smartctl', '-a', f'/dev/{disk_name}'], # Text output (fallback) ...
['smartctl', '-a', '-d', 'ata', f'/dev/{disk_name}'], # Text with ATA device type
['smartctl', '-a', '-d', 'sat', f'/dev/{disk_name}'], # Text with SAT device type
['smartctl', '-i', '-H', '-A', f'/dev/{disk_name}'], # Info + Health + Attributes
['smartctl', '-i', '-H', '-A', '-d', 'ata', f'/dev/{disk_name}'], # With ATA
['smartctl', '-i', '-H', '-A', '-d', 'sat', f'/dev/{disk_name}'], # With SAT
['smartctl', '-a', '-j', '-d', 'scsi', f'/dev/{disk_name}'], # JSON with SCSI device type
['smartctl', '-a', '-j', '-d', 'sat,12', f'/dev/{disk_name}'], # SAT with 12-byte commands
['smartctl', '-a', '-j', '-d', 'sat,16', f'/dev/{disk_name}'], # SAT with 16-byte commands
['smartctl', '-a', '-d', 'sat,12', f'/dev/{disk_name}'], # Text SAT with 12-byte commands
['smartctl', '-a', '-d', 'sat,16', f'/dev/{disk_name}'], # Text SAT with 16-byte commands
] ]
process = None # Initialize process to None process = None # Initialize process to None
for cmd_index, cmd in enumerate(commands_to_try): for cmd_index, cmd in enumerate(commands_to_try):
print(f"[v0] Attempt {cmd_index + 1}/{len(commands_to_try)}: Running command: {' '.join(cmd)}") print(f"[v0] Attempt {cmd_index + 1}/{len(commands_to_try)}: Running command: {' '.join(cmd)}")
@@ -804,6 +813,31 @@ def get_smart_data(disk_name):
if 'nvme_smart_health_information_log' in data: if 'nvme_smart_health_information_log' in data:
print(f"[v0] Parsing NVMe SMART data...") print(f"[v0] Parsing NVMe SMART data...")
nvme_data = data['nvme_smart_health_information_log'] nvme_data = data['nvme_smart_health_information_log']
if 'available_spare' in nvme_data:
smart_data['available_spare'] = nvme_data['available_spare']
print(f"[v0] NVMe Available Spare: {smart_data['available_spare']}%")
if 'available_spare_threshold' in nvme_data:
smart_data['available_spare_threshold'] = nvme_data['available_spare_threshold']
print(f"[v0] NVMe Spare Threshold: {smart_data['available_spare_threshold']}%")
if 'critical_warning' in nvme_data:
cw = nvme_data['critical_warning']
if cw != 0:
print(f"[v0] NVMe Critical Warning: {cw}")
smart_data['health'] = 'critical'
if 'percentage_used' in nvme_data:
smart_data['percentage_used'] = nvme_data['percentage_used']
print(f"[v0] NVMe Percentage Used: {smart_data['percentage_used']}%")
if 'data_units_written' in nvme_data:
du = _to_int(nvme_data['data_units_written'], 0)
total_gb = (du * 512000) / (1024 ** 3) # 1 data unit = 512000 bytes
smart_data['total_lbas_written'] = round(total_gb, 2)
print(f"[v0] NVMe Total Data Written: {smart_data['total_lbas_written']} GB")
if 'temperature' in nvme_data: if 'temperature' in nvme_data:
smart_data['temperature'] = nvme_data['temperature'] smart_data['temperature'] = nvme_data['temperature']
print(f"[v0] NVMe Temperature: {smart_data['temperature']}°C") print(f"[v0] NVMe Temperature: {smart_data['temperature']}°C")
@@ -828,9 +862,9 @@ def get_smart_data(disk_name):
if 'ata_smart_attributes' in data and 'table' in data['ata_smart_attributes']: if 'ata_smart_attributes' in data and 'table' in data['ata_smart_attributes']:
print(f"[v0] Parsing ATA SMART attributes...") print(f"[v0] Parsing ATA SMART attributes...")
for attr in data['ata_smart_attributes']['table']: for attr in data['ata_smart_attributes']['table']:
attr_id = attr.get('id') attr_id = _to_int(attr.get('id'))
raw_value = attr.get('raw', {}).get('value', 0) raw_value = attr.get('raw', {}).get('value', 0)
normalized_value = attr.get('value', 0) # Normalized value (0-100) normalized_value = _to_int(attr.get('value', 100))
if attr_id == 9: # Power_On_Hours if attr_id == 9: # Power_On_Hours
smart_data['power_on_hours'] = raw_value smart_data['power_on_hours'] = raw_value
@@ -855,25 +889,26 @@ def get_smart_data(disk_name):
elif attr_id == 199: # UDMA_CRC_Error_Count elif attr_id == 199: # UDMA_CRC_Error_Count
smart_data['crc_errors'] = raw_value smart_data['crc_errors'] = raw_value
print(f"[v0] CRC Errors (ID 199): {smart_data['crc_errors']}") print(f"[v0] CRC Errors (ID 199): {smart_data['crc_errors']}")
elif attr_id == '233': # Media_Wearout_Indicator (Intel/Samsung SSD)
# Valor normalizado: 100 = nuevo, 0 = gastado elif attr_id == 233: # Media_Wearout_Indicator
# Invertimos para mostrar desgaste: 0% = nuevo, 100% = gastado
smart_data['media_wearout_indicator'] = 100 - normalized_value smart_data['media_wearout_indicator'] = 100 - normalized_value
print(f"[v0] Media Wearout Indicator (ID 233): {smart_data['media_wearout_indicator']}% used") print(f"[v0] Media Wearout Indicator (ID 233): {smart_data['media_wearout_indicator']}% used")
elif attr_id == '177': # Wear_Leveling_Count
# Valor normalizado: 100 = nuevo, 0 = gastado elif attr_id == 177: # Wear_Leveling_Count
smart_data['wear_leveling_count'] = 100 - normalized_value smart_data['wear_leveling_count'] = 100 - normalized_value
print(f"[v0] Wear Leveling Count (ID 177): {smart_data['wear_leveling_count']}% used") print(f"[v0] Wear Leveling Count (ID 177): {smart_data['wear_leveling_count']}% used")
elif attr_id == '202': # Percentage_Lifetime_Remain (algunos fabricantes)
# Valor normalizado: 100 = nuevo, 0 = gastado elif attr_id in (202, 231): # SSD_Life_Left
smart_data['ssd_life_left'] = normalized_value smart_data['ssd_life_left'] = normalized_value
print(f"[v0] SSD Life Left (ID 202): {smart_data['ssd_life_left']}%") print(f"[v0] SSD Life Left (ID {attr_id}): {smart_data['ssd_life_left']}%")
elif attr_id == '231': # SSD_Life_Left (algunos fabricantes)
smart_data['ssd_life_left'] = normalized_value elif attr_id == 241: # Total_LBAs_Written
print(f"[v0] SSD Life Left (ID 231): {smart_data['ssd_life_left']}%") raw_int = _to_int(raw_value)
elif attr_id == '241': # Total_LBAs_Written if raw_int is not None:
# Convertir a GB (raw_value es en sectores de 512 bytes) total_gb = (raw_int * 512) / (1024 ** 3)
# Corrected the conversion for Total_LBAs_Written (ID 241) smart_data['total_lbas_written'] = round(total_gb, 2)
print(f"[v0] Total LBAs Written (ID 241): {smart_data['total_lbas_written']} GB")
try: try:
raw_int = int(raw_value.replace(',', '')) raw_int = int(raw_value.replace(',', ''))
total_gb = (raw_int * 512) / (1024 * 1024 * 1024) total_gb = (raw_int * 512) / (1024 * 1024 * 1024)
@@ -999,24 +1034,21 @@ def get_smart_data(disk_name):
elif attr_id == '199': # CRC Errors elif attr_id == '199': # CRC Errors
smart_data['crc_errors'] = int(raw_value) smart_data['crc_errors'] = int(raw_value)
print(f"[v0] CRC Errors: {smart_data['crc_errors']}") print(f"[v0] CRC Errors: {smart_data['crc_errors']}")
elif attr_id == '233': # Media_Wearout_Indicator (Intel/Samsung SSD) elif attr_id == 233: # Media_Wearout_Indicator (Intel/Samsung SSD)
normalized_value = int(parts[3]) if len(parts) > 3 else 100 normalized_value = _to_int(parts[3], 100)
smart_data['media_wearout_indicator'] = 100 - normalized_value smart_data['media_wearout_indicator'] = 100 - normalized_value
print(f"[v0] Media Wearout Indicator (ID 233): {smart_data['media_wearout_indicator']}% used") print(f"[v0] Media Wearout Indicator (ID 233): {smart_data['media_wearout_indicator']}% used")
elif attr_id == '177': # Wear_Leveling_Count
# Valor normalizado: 100 = nuevo, 0 = gastado elif attr_id == 177: # Wear_Leveling_Count
normalized_value = int(parts[3]) if len(parts) > 3 else 100 normalized_value = _to_int(parts[3], 100)
smart_data['wear_leveling_count'] = 100 - normalized_value smart_data['wear_leveling_count'] = 100 - normalized_value
print(f"[v0] Wear Leveling Count (ID 177): {smart_data['wear_leveling_count']}% used") print(f"[v0] Wear Leveling Count (ID 177): {smart_data['wear_leveling_count']}% used")
elif attr_id == '202': # Percentage_Lifetime_Remain (algunos fabricantes)
# Valor normalizado: 100 = nuevo, 0 = gastado elif attr_id in (202, 231): # SSD_Life_Left (algunos fabricantes)
normalized_value = int(parts[3]) if len(parts) > 3 else 100 normalized_value = _to_int(parts[3], 100)
smart_data['ssd_life_left'] = normalized_value smart_data['ssd_life_left'] = normalized_value
print(f"[v0] SSD Life Left (ID 202): {smart_data['ssd_life_left']}%") print(f"[v0] SSD Life Left (ID {attr_id}): {smart_data['ssd_life_left']}%")
elif attr_id == '231': # SSD_Life_Left (algunos fabricantes)
normalized_value = int(parts[3]) if len(parts) > 3 else 100
smart_data['ssd_life_left'] = normalized_value
print(f"[v0] SSD Life Left (ID 231): {smart_data['ssd_life_left']}%")
elif attr_id == '241': # Total_LBAs_Written elif attr_id == '241': # Total_LBAs_Written
# Convertir a GB (raw_value es en sectores de 512 bytes) # Convertir a GB (raw_value es en sectores de 512 bytes)
try: try: