identify storage temperature sensors by their actual block device (#315)

This commit is contained in:
MacRimi
2026-08-27 23:18:50 +02:00
parent d13f5ed900
commit abf0f7fbf8
8 changed files with 537 additions and 55 deletions
+82 -47
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@@ -15,6 +15,7 @@ import {
type GPU,
type PCIDevice,
type StorageDevice,
type Temperature,
type CoralTPU,
type UsbDevice,
fetcher as swrFetcher,
@@ -241,11 +242,13 @@ const translateDeviceType = (type: string | null | undefined, t: TFunction): str
return text
}
const groupAndSortTemperatures = (temperatures: any[]) => {
const groupAndSortTemperatures = (temperatures: Temperature[]) => {
const groups = {
CPU: [] as any[],
GPU: [] as any[],
NVME: [] as any[],
HDD: [] as any[],
SSD: [] as any[],
PCI: [] as any[],
OTHER: [] as any[],
}
@@ -254,7 +257,21 @@ const groupAndSortTemperatures = (temperatures: any[]) => {
const nameLower = temp.name.toLowerCase()
const adapterLower = temp.adapter?.toLowerCase() || ""
if (nameLower.includes("cpu") || nameLower.includes("core") || nameLower.includes("package")) {
if (temp.type === "cpu") {
groups.CPU.push(temp)
} else if (temp.type === "gpu") {
groups.GPU.push(temp)
} else if (temp.type === "nvme") {
groups.NVME.push(temp)
} else if (temp.type === "hdd") {
groups.HDD.push(temp)
} else if (temp.type === "ssd") {
groups.SSD.push(temp)
} else if (temp.type === "pci") {
groups.PCI.push(temp)
} else if (temp.type) {
groups.OTHER.push(temp)
} else if (nameLower.includes("cpu") || nameLower.includes("core") || nameLower.includes("package")) {
groups.CPU.push(temp)
} else if (nameLower.includes("gpu") || adapterLower.includes("gpu")) {
groups.GPU.push(temp)
@@ -270,6 +287,58 @@ const groupAndSortTemperatures = (temperatures: any[]) => {
return groups
}
const StorageTemperatureGroup = ({ title, temperatures }: { title: string; temperatures: Temperature[] }) => {
if (temperatures.length === 0) return null
return (
<div className={temperatures.length > 1 ? "md:col-span-2" : ""}>
<div className="mb-3 flex items-center gap-2">
<HardDrive className="h-4 w-4 text-muted-foreground" />
<h3 className="text-sm font-semibold">{title}</h3>
<Badge variant="outline" className="text-xs">
{temperatures.length}
</Badge>
</div>
<div className={`grid gap-4 ${temperatures.length > 1 ? "md:grid-cols-2" : ""}`}>
{temperatures.map((temp, index) => {
const percentage = temp.critical && temp.critical > 0 ? (temp.current / temp.critical) * 100 : temp.current
const isHot = temp.current > (temp.high || 80)
const isCritical = temp.current > (temp.critical || 90)
const devices = temp.devices?.length ? temp.devices : temp.device ? [temp.device] : []
return (
<div key={`${temp.device || temp.name}-${index}`} className="space-y-2">
<div className="flex items-center justify-between gap-4">
<span className="truncate text-sm font-medium" title={temp.model || temp.name}>
{temp.model || temp.name}
</span>
<span
className={`shrink-0 text-sm font-semibold ${isCritical ? "text-red-500" : isHot ? "text-orange-500" : "text-green-500"}`}
>
{temp.current.toFixed(1)}°C
</span>
</div>
<div className="h-2 w-full overflow-hidden rounded-full bg-secondary">
<div
className="h-full bg-blue-500 transition-all"
style={{ width: `${Math.min(percentage, 100)}%` }}
/>
</div>
{devices.length > 0 ? (
<span className="block font-mono text-xs text-muted-foreground">
{devices.map((device) => `/dev/${device}`).join(" · ")}
</span>
) : (
temp.adapter && <span className="text-xs text-muted-foreground">{temp.adapter}</span>
)}
</div>
)
})}
</div>
</div>
)
}
export default function Hardware() {
const t = useT()
@@ -834,52 +903,18 @@ export default function Hardware() {
</div>
)}
{/* NVME Sensors */}
{groupAndSortTemperatures(hardwareData.temperatures).NVME.length > 0 && (
<div
className={
groupAndSortTemperatures(hardwareData.temperatures).NVME.length > 1 ? "md:col-span-2" : ""
}
>
<div className="mb-3 flex items-center gap-2">
<HardDrive className="h-4 w-4 text-muted-foreground" />
<h3 className="text-sm font-semibold">NVME</h3>
<Badge variant="outline" className="text-xs">
{groupAndSortTemperatures(hardwareData.temperatures).NVME.length}
</Badge>
</div>
<div
className={`grid gap-4 ${groupAndSortTemperatures(hardwareData.temperatures).NVME.length > 1 ? "md:grid-cols-2" : ""}`}
>
{groupAndSortTemperatures(hardwareData.temperatures).NVME.map((temp, index) => {
const percentage =
temp.critical > 0 ? (temp.current / temp.critical) * 100 : (temp.current / 100) * 100
const isHot = temp.current > (temp.high || 80)
const isCritical = temp.current > (temp.critical || 90)
return (
<div key={index} className="space-y-2">
<div className="flex items-center justify-between">
<span className="text-sm font-medium">{temp.name}</span>
<span
className={`text-sm font-semibold ${isCritical ? "text-red-500" : isHot ? "text-orange-500" : "text-green-500"}`}
>
{temp.current.toFixed(1)}°C
</span>
</div>
<div className="h-2 w-full overflow-hidden rounded-full bg-secondary">
<div
className="h-full bg-blue-500 transition-all"
style={{ width: `${Math.min(percentage, 100)}%` }}
<StorageTemperatureGroup
title="NVME"
temperatures={groupAndSortTemperatures(hardwareData.temperatures).NVME}
/>
<StorageTemperatureGroup
title="HDD"
temperatures={groupAndSortTemperatures(hardwareData.temperatures).HDD}
/>
<StorageTemperatureGroup
title="SSD"
temperatures={groupAndSortTemperatures(hardwareData.temperatures).SSD}
/>
</div>
{temp.adapter && <span className="text-xs text-muted-foreground">{temp.adapter}</span>}
</div>
)
})}
</div>
</div>
)}
{/* PCI Sensors */}
{groupAndSortTemperatures(hardwareData.temperatures).PCI.length > 0 && (
+1
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@@ -135,6 +135,7 @@ chmod +x "$APP_DIR/usr/bin/update_docker_engine.py" 2>/dev/null || true
cp "$APPIMAGE_ROOT/../json/app_tracking_hints.json" "$APP_DIR/usr/bin/" 2>/dev/null || echo "⚠️ app_tracking_hints.json not found"
cp "$SCRIPT_DIR/flask_terminal_routes.py" "$APP_DIR/usr/bin/" 2>/dev/null || echo "⚠️ flask_terminal_routes.py not found"
cp "$SCRIPT_DIR/hardware_monitor.py" "$APP_DIR/usr/bin/" 2>/dev/null || echo "⚠️ hardware_monitor.py not found"
cp "$SCRIPT_DIR/temperature_sensor_resolver.py" "$APP_DIR/usr/bin/" 2>/dev/null || echo "⚠️ temperature_sensor_resolver.py not found"
cp "$SCRIPT_DIR/proxmox_storage_monitor.py" "$APP_DIR/usr/bin/" 2>/dev/null || echo "⚠️ proxmox_storage_monitor.py not found"
cp "$SCRIPT_DIR/flask_script_runner.py" "$APP_DIR/usr/bin/" 2>/dev/null || echo "⚠️ flask_script_runner.py not found"
cp "$SCRIPT_DIR/security_manager.py" "$APP_DIR/usr/bin/" 2>/dev/null || echo "⚠️ security_manager.py not found"
+47 -1
View File
@@ -77,6 +77,7 @@ from smartctl_resolver import ( # noqa: E402
smartctl_probe_types,
smartctl_type_args,
)
from temperature_sensor_resolver import get_storage_temperatures # noqa: E402
from flask_script_runner import script_runner
import threading
from proxmox_storage_monitor import classify_storage_state, proxmox_storage_monitor
@@ -6907,6 +6908,30 @@ def identify_temperature_sensor(sensor_name, adapter, chip_name=None):
return sensor_name
def classify_temperature_sensor(sensor_name, adapter, chip_name=None, identified_name=None):
sensor_lower = sensor_name.lower()
adapter_lower = adapter.lower() if adapter else ""
chip_lower = chip_name.lower() if chip_name else ""
identified_lower = identified_name.lower() if identified_name else ""
combined = f"{sensor_lower} {adapter_lower} {chip_lower} {identified_lower}"
if "nvme" in chip_lower or "nvme" in sensor_lower or "composite" in sensor_lower or "nvme" in identified_lower:
return "nvme"
if "drivetemp" in chip_lower or "sata" in sensor_lower or "ata" in sensor_lower or "sata" in identified_lower:
return "storage"
if identified_lower.startswith("cpu") or any(
cpu_label in sensor_lower for cpu_label in ["cpu", "package", "tctl", "tccd", "core"]
):
return "cpu"
if identified_lower.startswith("gpu") or any(
gpu_driver in combined for gpu_driver in ["nouveau", "amdgpu", "radeon", "i915"]
):
return "gpu"
if identified_lower.startswith("pci") or ("pci" in adapter_lower and "temp" in sensor_lower):
return "pci"
return "other"
def identify_fan(sensor_name, adapter, chip_name=None):
"""Identify what a fan sensor corresponds to, using hardware_monitor for GPU detection"""
sensor_lower = sensor_name.lower()
@@ -7071,6 +7096,13 @@ def get_temperature_info():
"""Get detailed temperature information from sensors command"""
temperatures = []
power_meter = None
covered_storage_kinds = set()
try:
storage_temperatures, covered_storage_kinds = get_storage_temperatures()
temperatures.extend(storage_temperatures)
except Exception:
covered_storage_kinds = set()
try:
sensors_output = get_cached_sensors_output()
@@ -7119,6 +7151,13 @@ def get_temperature_info():
# Parse temperature sensors
elif '°C' in value_part or 'C' in value_part:
try:
chip_lower = current_chip.lower() if current_chip else ""
if (
("nvme" in chip_lower and "nvme" in covered_storage_kinds)
or ("drivetemp" in chip_lower and "drivetemp" in covered_storage_kinds)
):
continue
# Extract temperature value
temp_match = re.search(r'([+-]?[\d.]+)\s*°?C', value_part)
if temp_match:
@@ -7138,6 +7177,12 @@ def get_temperature_info():
continue
identified_name = identify_temperature_sensor(sensor_name, current_adapter, current_chip)
sensor_type = classify_temperature_sensor(
sensor_name,
current_adapter,
current_chip,
identified_name,
)
temperatures.append({
'name': identified_name,
@@ -7145,7 +7190,8 @@ def get_temperature_info():
'current': temp_value,
'high': high_value,
'critical': crit_value,
'adapter': current_adapter
'adapter': current_adapter,
'type': sensor_type
})
except ValueError:
pass
@@ -0,0 +1,231 @@
#!/usr/bin/env python3
import os
import re
import time
from pathlib import Path
_TOPOLOGY_CACHE = {
"key": None,
"time": 0.0,
"entries": [],
}
_TOPOLOGY_CACHE_TTL = 60
def _read_text(path):
try:
return Path(path).read_text(encoding="utf-8", errors="replace").strip()
except (OSError, ValueError):
return ""
def _read_temperature(path):
value = _read_text(path)
if not value:
return 0.0
try:
return float(value) / 1000.0
except ValueError:
return 0.0
def _related_path_distance(first, second):
first_parts = Path(first).parts
second_parts = Path(second).parts
common = 0
for first_part, second_part in zip(first_parts, second_parts):
if first_part != second_part:
break
common += 1
if common == min(len(first_parts), len(second_parts)):
return (len(first_parts) - common) + (len(second_parts) - common)
return None
def _block_devices_for_hwmon(hwmon_device, block_root):
exact = []
related = []
try:
block_entries = sorted(Path(block_root).iterdir(), key=lambda item: item.name)
except OSError:
return []
hwmon_real = os.path.realpath(hwmon_device)
for block_entry in block_entries:
block_device = block_entry / "device"
if not block_device.exists():
continue
block_real = os.path.realpath(block_device)
if block_real == hwmon_real:
exact.append(block_entry.name)
continue
distance = _related_path_distance(hwmon_real, block_real)
if distance is not None:
related.append((distance, block_entry.name))
if exact:
return exact
if not related:
return []
minimum_distance = min(distance for distance, _ in related)
return [name for distance, name in related if distance == minimum_distance]
def _device_metadata(device_name, hwmon_kind, block_root):
block_path = Path(block_root) / device_name
rotational = _read_text(block_path / "queue" / "rotational")
if hwmon_kind == "nvme":
sensor_type = "nvme"
elif rotational == "1":
sensor_type = "hdd"
elif rotational == "0":
sensor_type = "ssd"
else:
sensor_type = "storage"
return {
"type": sensor_type,
"model": _read_text(block_path / "device" / "model"),
"serial": _read_text(block_path / "device" / "serial"),
}
def _build_topology(hwmon_root, block_root):
entries = []
try:
hwmon_entries = sorted(Path(hwmon_root).glob("hwmon*"), key=lambda item: item.name)
except OSError:
return entries
for hwmon_path in hwmon_entries:
hwmon_kind = _read_text(hwmon_path / "name").lower()
if hwmon_kind not in {"nvme", "drivetemp"}:
continue
devices = _block_devices_for_hwmon(hwmon_path / "device", block_root)
device = devices[0] if devices else ""
metadata = _device_metadata(device, hwmon_kind, block_root) if device else {
"type": "nvme" if hwmon_kind == "nvme" else "storage",
"model": "",
"serial": "",
}
entries.append({
"hwmon_path": str(hwmon_path),
"kind": hwmon_kind,
"device": device,
"devices": devices,
**metadata,
})
return entries
def _get_topology(hwmon_root, block_root, cache_ttl):
cache_key = (os.path.realpath(hwmon_root), os.path.realpath(block_root))
now = time.monotonic()
if (
_TOPOLOGY_CACHE["key"] == cache_key
and now - _TOPOLOGY_CACHE["time"] < cache_ttl
):
return _TOPOLOGY_CACHE["entries"]
entries = _build_topology(hwmon_root, block_root)
_TOPOLOGY_CACHE.update({
"key": cache_key,
"time": now,
"entries": entries,
})
return entries
def clear_temperature_topology_cache():
_TOPOLOGY_CACHE.update({"key": None, "time": 0.0, "entries": []})
def _temperature_inputs(entry):
hwmon_path = Path(entry["hwmon_path"])
inputs = sorted(hwmon_path.glob("temp*_input"), key=lambda item: item.name)
if entry["kind"] == "drivetemp":
preferred = [item for item in inputs if item.name == "temp1_input"]
return preferred or inputs[:1]
selected = []
for input_path in inputs:
match = re.fullmatch(r"temp(\d+)_input", input_path.name)
if not match:
continue
index = match.group(1)
label = _read_text(hwmon_path / f"temp{index}_label")
if label.lower() == "composite" or (not label and index == "1"):
selected.append(input_path)
return selected
def get_storage_temperatures(
hwmon_root="/sys/class/hwmon",
block_root="/sys/block",
cache_ttl=_TOPOLOGY_CACHE_TTL,
):
temperatures = []
expected_by_kind = {}
resolved_by_kind = {}
for entry in _get_topology(hwmon_root, block_root, cache_ttl):
inputs = _temperature_inputs(entry)
if not inputs:
continue
expected_by_kind[entry["kind"]] = expected_by_kind.get(entry["kind"], 0) + 1
input_path = inputs[0]
match = re.fullmatch(r"temp(\d+)_input", input_path.name)
if not match:
continue
index = match.group(1)
current = _read_temperature(input_path)
if current == 0.0 and not _read_text(input_path):
# Sensor present but no readable temperature (e.g. an NVMe in
# low power state that leaves temp1_input empty). Mark the
# kind as covered anyway so the lm-sensors fallback does not
# add a duplicate entry for the same hwmon device.
resolved_by_kind[entry["kind"]] = resolved_by_kind.get(entry["kind"], 0) + 1
continue
sensor_type = entry["type"]
if sensor_type == "nvme":
name = "NVMe SSD"
adapter = "PCI adapter"
elif sensor_type == "hdd":
name = "HDD"
adapter = "SCSI adapter"
elif sensor_type == "ssd":
name = "SSD"
adapter = "SCSI adapter"
else:
name = "Storage device"
adapter = "SCSI adapter"
label = _read_text(Path(entry["hwmon_path"]) / f"temp{index}_label")
temperatures.append({
"name": name,
"original_name": label or f"temp{index}",
"current": current,
"high": _read_temperature(Path(entry["hwmon_path"]) / f"temp{index}_max"),
"critical": _read_temperature(Path(entry["hwmon_path"]) / f"temp{index}_crit"),
"adapter": adapter,
"type": sensor_type,
"device": entry["device"],
"devices": entry["devices"],
"model": entry["model"],
"serial": entry["serial"],
})
resolved_by_kind[entry["kind"]] = resolved_by_kind.get(entry["kind"], 0) + 1
covered_kinds = {
kind
for kind, expected in expected_by_kind.items()
if resolved_by_kind.get(kind, 0) == expected
}
temperatures.sort(key=lambda item: (item["type"], item["device"], item["name"]))
return temperatures, covered_kinds
@@ -0,0 +1,160 @@
import sys
import tempfile
import unittest
from pathlib import Path
SCRIPTS_DIR = Path(__file__).resolve().parents[1]
if str(SCRIPTS_DIR) not in sys.path:
sys.path.insert(0, str(SCRIPTS_DIR))
from temperature_sensor_resolver import ( # noqa: E402
clear_temperature_topology_cache,
get_storage_temperatures,
)
class TemperatureSensorResolverTests(unittest.TestCase):
def setUp(self):
clear_temperature_topology_cache()
self.temporary = tempfile.TemporaryDirectory()
self.root = Path(self.temporary.name)
self.hwmon_root = self.root / "sys" / "class" / "hwmon"
self.block_root = self.root / "sys" / "block"
self.devices_root = self.root / "sys" / "devices"
self.hwmon_root.mkdir(parents=True)
self.block_root.mkdir(parents=True)
self.devices_root.mkdir(parents=True)
def tearDown(self):
self.temporary.cleanup()
def _add_sensor(self, hwmon_index, kind, device_path, values):
hwmon_path = self.hwmon_root / f"hwmon{hwmon_index}"
hwmon_path.mkdir()
(hwmon_path / "name").write_text(kind, encoding="utf-8")
(hwmon_path / "device").symlink_to(device_path)
for filename, value in values.items():
(hwmon_path / filename).write_text(str(value), encoding="utf-8")
def _add_block_device(self, name, device_path, rotational, model, serial):
block_path = self.block_root / name
(block_path / "queue").mkdir(parents=True)
(block_path / "queue" / "rotational").write_text(str(rotational), encoding="utf-8")
(block_path / "device").symlink_to(device_path)
(device_path / "model").write_text(model, encoding="utf-8")
(device_path / "serial").write_text(serial, encoding="utf-8")
def test_nvme_sensor_resolves_to_its_exact_namespace(self):
controller = self.devices_root / "pci0000:00" / "0000:01:00.0" / "nvme" / "nvme0"
controller.mkdir(parents=True)
self._add_block_device("nvme0n1", controller, 0, "WD Red SN700", "NVME-SERIAL")
self._add_sensor(0, "nvme", controller, {
"temp1_label": "Composite",
"temp1_input": 17900,
"temp1_max": 64800,
"temp1_crit": 79800,
"temp2_label": "Sensor 1",
"temp2_input": 22000,
})
temperatures, covered = get_storage_temperatures(
self.hwmon_root,
self.block_root,
cache_ttl=0,
)
self.assertEqual(len(temperatures), 1)
self.assertEqual(temperatures[0]["type"], "nvme")
self.assertEqual(temperatures[0]["device"], "nvme0n1")
self.assertEqual(temperatures[0]["model"], "WD Red SN700")
self.assertEqual(temperatures[0]["serial"], "NVME-SERIAL")
self.assertEqual(temperatures[0]["current"], 17.9)
self.assertEqual(temperatures[0]["high"], 64.8)
self.assertEqual(temperatures[0]["critical"], 79.8)
self.assertEqual(covered, {"nvme"})
def test_multiple_nvme_controllers_keep_their_own_device_identity(self):
first = self.devices_root / "pci0000:00" / "0000:01:00.0" / "nvme" / "nvme0"
second = self.devices_root / "pci0000:00" / "0000:04:00.0" / "nvme" / "nvme1"
first.mkdir(parents=True)
second.mkdir(parents=True)
self._add_block_device("nvme0n1", first, 0, "NVMe One", "SERIAL-ONE")
self._add_block_device("nvme1n1", second, 0, "NVMe Two", "SERIAL-TWO")
self._add_sensor(0, "nvme", second, {
"temp1_label": "Composite",
"temp1_input": 42000,
})
self._add_sensor(1, "nvme", first, {
"temp1_label": "Composite",
"temp1_input": 37000,
})
temperatures, _ = get_storage_temperatures(
self.hwmon_root,
self.block_root,
cache_ttl=0,
)
by_device = {item["device"]: item for item in temperatures}
self.assertEqual(by_device["nvme0n1"]["model"], "NVMe One")
self.assertEqual(by_device["nvme0n1"]["current"], 37.0)
self.assertEqual(by_device["nvme1n1"]["model"], "NVMe Two")
self.assertEqual(by_device["nvme1n1"]["current"], 42.0)
def test_drivetemp_uses_rotational_flag_to_identify_hdd(self):
drive = self.devices_root / "pci0000:00" / "ata4" / "host3" / "target3:0:0" / "3:0:0:0"
drive.mkdir(parents=True)
self._add_block_device("sda", drive, 1, "ST4000VN006", "HDD-SERIAL")
self._add_sensor(1, "drivetemp", drive, {
"temp1_input": 35000,
"temp1_max": 60000,
"temp1_crit": 85000,
})
temperatures, covered = get_storage_temperatures(
self.hwmon_root,
self.block_root,
cache_ttl=0,
)
self.assertEqual(temperatures[0]["name"], "HDD")
self.assertEqual(temperatures[0]["type"], "hdd")
self.assertEqual(temperatures[0]["device"], "sda")
self.assertEqual(temperatures[0]["original_name"], "temp1")
self.assertEqual(covered, {"drivetemp"})
def test_drivetemp_does_not_assume_every_drive_is_rotational(self):
drive = self.devices_root / "pci0000:00" / "ata5" / "host4" / "target4:0:0" / "4:0:0:0"
drive.mkdir(parents=True)
self._add_block_device("sdb", drive, 0, "SATA SSD", "SSD-SERIAL")
self._add_sensor(2, "drivetemp", drive, {"temp1_input": 31000})
temperatures, _ = get_storage_temperatures(
self.hwmon_root,
self.block_root,
cache_ttl=0,
)
self.assertEqual(temperatures[0]["type"], "ssd")
self.assertEqual(temperatures[0]["device"], "sdb")
def test_topology_cache_does_not_cache_temperature_values(self):
controller = self.devices_root / "pci0000:00" / "0000:01:00.0" / "nvme" / "nvme0"
controller.mkdir(parents=True)
self._add_block_device("nvme0n1", controller, 0, "NVMe Live", "SERIAL-LIVE")
self._add_sensor(0, "nvme", controller, {
"temp1_label": "Composite",
"temp1_input": 25000,
})
first, _ = get_storage_temperatures(self.hwmon_root, self.block_root, cache_ttl=60)
(self.hwmon_root / "hwmon0" / "temp1_input").write_text("29000", encoding="utf-8")
second, _ = get_storage_temperatures(self.hwmon_root, self.block_root, cache_ttl=60)
self.assertEqual(first[0]["current"], 25.0)
self.assertEqual(second[0]["current"], 29.0)
if __name__ == "__main__":
unittest.main()
+5
View File
@@ -7,6 +7,11 @@ export interface Temperature {
high?: number
critical?: number
adapter?: string
type?: "cpu" | "gpu" | "nvme" | "hdd" | "ssd" | "storage" | "pci" | "other"
device?: string
devices?: string[]
model?: string
serial?: string
}
export interface PowerMeter {
@@ -33,11 +33,13 @@
"memoryTitle": "Memory Modules",
"memoryBody": "One row per populated slot from <code>dmidecode</code>: slot label, module size, type (DDR4 / DDR5 / ECC variants), speed (configured and rated), manufacturer, part number and serial. Empty slots are listed greyed-out so you can see the upgrade headroom at a glance.",
"thermalTitle": "Thermal Monitoring",
"thermalIntro": "Five sub-blocks, each fed by <code>lm-sensors</code> + tool-specific scrapers. A block hides itself when no sensors are reported in that category.",
"thermalIntro": "Seven sub-blocks, fed by <code>lm-sensors</code>, <code>sysfs</code> and tool-specific scrapers. Storage hwmon sensors are correlated with the physical block device, so each detected drive includes its model and <code>/dev/...</code> path. A block hides itself when no sensors are reported in that category.",
"thermalItems": [
"<strong>CPU</strong> — package and per-core temperatures.",
"<strong>GPU</strong> — discrete-GPU sensors via <code>nvidia-smi</code> / <code>amdgpu_top</code> / Intel iGPU. Includes hot-spot and memory-junction when the driver exposes them.",
"<strong>NVME</strong> — composite + per-sensor temperatures from <code>nvme</code>.",
"<strong>NVME</strong> — controller composite temperature associated with its exact NVMe namespace.",
"<strong>HDD</strong> — <code>drivetemp</code> readings for rotational block devices.",
"<strong>SSD</strong> — <code>drivetemp</code> readings for non-rotational SATA/SAS block devices.",
"<strong>PCI</strong> — sensors that surface as PCI-attached devices (HBAs, network cards with internal sensors).",
"<strong>OTHER</strong> — chipset, VRM, ambient sensors that don't fit elsewhere."
]
@@ -182,7 +184,7 @@
{
"section": "Live sensor values",
"endpoint": "/api/hardware/live",
"source": "<code>sensors</code> (lm-sensors), package temperatures, fan RPM. Refreshed each request."
"source": "<code>sensors</code> (lm-sensors) plus <code>/sys/class/hwmon</code> and <code>/sys/block</code> for storage-device identity. Temperature values remain live; only the hwmon-to-device topology is cached for 60 seconds."
},
{
"section": "CPU temperature history",
@@ -33,11 +33,13 @@
"memoryTitle": "Memory Modules",
"memoryBody": "Una fila por slot poblado desde <code>dmidecode</code>: etiqueta del slot, tamaño del módulo, tipo (DDR4 / DDR5 / variantes ECC), velocidad (configurada y nominal), fabricante, part number y serial. Los slots vacíos se listan atenuados para que veas de un vistazo el margen de ampliación.",
"thermalTitle": "Thermal Monitoring",
"thermalIntro": "Cinco sub-bloques, cada uno alimentado por <code>lm-sensors</code> + scrapers específicos por herramienta. Un bloque se oculta cuando no hay sensores reportados en esa categoría.",
"thermalIntro": "Siete sub-bloques alimentados por <code>lm-sensors</code>, <code>sysfs</code> y scrapers específicos por herramienta. Los sensores hwmon de almacenamiento se correlacionan con el dispositivo de bloques físico, por lo que cada unidad detectada incluye su modelo y la ruta <code>/dev/...</code>. Un bloque permanece oculto cuando no hay sensores en esa categoría.",
"thermalItems": [
"<strong>CPU</strong> — temperaturas de package y por core.",
"<strong>GPU</strong> — sensores de GPU discreta vía <code>nvidia-smi</code> / <code>amdgpu_top</code> / iGPU Intel. Incluye hot-spot y memory-junction cuando el driver los expone.",
"<strong>NVME</strong> — temperaturas composite + por sensor de <code>nvme</code>.",
"<strong>NVME</strong> — temperatura composite del controlador asociada a su namespace NVMe exacto.",
"<strong>HDD</strong> — lecturas de <code>drivetemp</code> para dispositivos de bloques rotacionales.",
"<strong>SSD</strong> — lecturas de <code>drivetemp</code> para dispositivos de bloques SATA/SAS no rotacionales.",
"<strong>PCI</strong> — sensores que aparecen como dispositivos conectados a PCI (HBAs, tarjetas de red con sensores internos).",
"<strong>OTHER</strong> — chipset, VRM, sensores ambiente que no encajan en otro sitio."
]
@@ -182,7 +184,7 @@
{
"section": "Valores de sensores en vivo",
"endpoint": "/api/hardware/live",
"source": "<code>sensors</code> (lm-sensors), temperaturas de package, RPM de ventiladores. Refrescado en cada petición."
"source": "<code>sensors</code> (lm-sensors) junto con <code>/sys/class/hwmon</code> y <code>/sys/block</code> para identificar los dispositivos de almacenamiento. Las temperaturas permanecen en vivo; solo la topología hwmon-dispositivo se guarda en caché durante 60 segundos."
},
{
"section": "Historial de temperatura de CPU",