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// This Source Code Form is subject to the terms of the Mozilla Public License, v. 2.0.
// If a copy of the MPL was not distributed with this file, You can obtain one at http://mozilla.org/MPL/2.0/.
// Copyright (C) LibreHardwareMonitor and Contributors.
// All Rights Reserved.
using System;
using System.Linq;
using System.Runtime.InteropServices;
using LibreHardwareMonitor.Interop;
using Microsoft.Win32.SafeHandles;
namespace LibreHardwareMonitor.Hardware.Battery;
internal sealed class Battery : Hardware
{
private readonly SafeFileHandle _batteryHandle;
private readonly Kernel32.BATTERY_INFORMATION _batteryInformation;
private readonly uint _batteryTag;
private readonly Sensor _chargeDischargeCurrent;
private readonly Sensor _chargeDischargeRate;
private readonly Sensor _chargeLevel;
private readonly Sensor _degradationLevel;
private readonly Sensor _designedCapacity;
private readonly Sensor _fullChargedCapacity;
private readonly Sensor _remainingCapacity;
private readonly Sensor _remainingTime;
private readonly Sensor _temperature;
private readonly Sensor _voltage;
public Battery
(
string name,
string manufacturer,
SafeFileHandle batteryHandle,
Kernel32.BATTERY_INFORMATION batteryInfo,
uint batteryTag,
ISettings settings) :
base(name, new Identifier("battery", $"{name.Replace(' ', '-')}_{batteryTag}"), settings)
{
Name = name;
Manufacturer = manufacturer;
_batteryTag = batteryTag;
_batteryHandle = batteryHandle;
_batteryInformation = batteryInfo;
if (batteryInfo.Chemistry.SequenceEqual(new[] { 'P', 'b', 'A', 'c' }))
{
Chemistry = BatteryChemistry.LeadAcid;
}
else if (batteryInfo.Chemistry.SequenceEqual(new[] { 'L', 'I', 'O', 'N' }) || batteryInfo.Chemistry.SequenceEqual(new[] { 'L', 'i', '-', 'I' }))
{
Chemistry = BatteryChemistry.LithiumIon;
}
else if (batteryInfo.Chemistry.SequenceEqual(new[] { 'N', 'i', 'C', 'd' }))
{
Chemistry = BatteryChemistry.NickelCadmium;
}
else if (batteryInfo.Chemistry.SequenceEqual(new[] { 'N', 'i', 'M', 'H' }))
{
Chemistry = BatteryChemistry.NickelMetalHydride;
}
else if (batteryInfo.Chemistry.SequenceEqual(new[] { 'N', 'i', 'Z', 'n' }))
{
Chemistry = BatteryChemistry.NickelZinc;
}
else if (batteryInfo.Chemistry.SequenceEqual(new[] { 'R', 'A', 'M', '\x00' }))
{
Chemistry = BatteryChemistry.AlkalineManganese;
}
else
{
Chemistry = BatteryChemistry.Unknown;
}
_designedCapacity = new Sensor("Designed Capacity", 0, SensorType.Energy, this, settings);
_fullChargedCapacity = new Sensor("Fully-Charged Capacity", 1, SensorType.Energy, this, settings);
_degradationLevel = new Sensor("Degradation Level", 1, SensorType.Level, this, settings);
_chargeLevel = new Sensor("Charge Level", 0, SensorType.Level, this, settings);
_voltage = new Sensor("Voltage", 0, SensorType.Voltage, this, settings);
_remainingCapacity = new Sensor("Remaining Capacity", 2, SensorType.Energy, this, settings);
_chargeDischargeCurrent = new Sensor("Charge/Discharge Current", 0, SensorType.Current, this, settings);
_chargeDischargeRate = new Sensor("Charge/Discharge Rate", 0, SensorType.Power, this, settings);
_remainingTime = new Sensor("Remaining Time (Estimated)", 0, SensorType.TimeSpan, this, settings);
_temperature = new Sensor("Battery Temperature", 0, SensorType.Temperature, this, settings);
if (batteryInfo.FullChargedCapacity is not Kernel32.BATTERY_UNKNOWN_CAPACITY &&
batteryInfo.DesignedCapacity is not Kernel32.BATTERY_UNKNOWN_CAPACITY)
{
_designedCapacity.Value = batteryInfo.DesignedCapacity;
_fullChargedCapacity.Value = batteryInfo.FullChargedCapacity;
_degradationLevel.Value = 100f - (batteryInfo.FullChargedCapacity * 100f / batteryInfo.DesignedCapacity);
DesignedCapacity = batteryInfo.DesignedCapacity;
FullChargedCapacity = batteryInfo.FullChargedCapacity;
ActivateSensor(_designedCapacity);
ActivateSensor(_fullChargedCapacity);
ActivateSensor(_degradationLevel);
}
}
public float? ChargeDischargeCurrent { get; private set; }
public float? ChargeDischargeRate { get; private set; }
public float? ChargeLevel => _chargeLevel.Value;
public BatteryChemistry Chemistry { get; }
public float? DegradationLevel => _degradationLevel.Value;
public float? DesignedCapacity { get; }
public float? FullChargedCapacity { get; }
public override HardwareType HardwareType => HardwareType.Battery;
public string Manufacturer { get; }
public float? RemainingCapacity => _remainingCapacity.Value;
public float? RemainingTime => _remainingTime.Value;
public float? Temperature => _temperature.Value;
public float? Voltage => _voltage.Value;
private void ActivateSensorIfValueNotNull(ISensor sensor)
{
if (sensor.Value != null)
ActivateSensor(sensor);
else
DeactivateSensor(sensor);
}
public override void Update()
{
Kernel32.BATTERY_WAIT_STATUS bws = default;
bws.BatteryTag = _batteryTag;
Kernel32.BATTERY_STATUS batteryStatus = default;
if (Kernel32.DeviceIoControl(_batteryHandle,
Kernel32.IOCTL.IOCTL_BATTERY_QUERY_STATUS,
ref bws,
Marshal.SizeOf(bws),
ref batteryStatus,
Marshal.SizeOf(batteryStatus),
out _,
IntPtr.Zero))
{
if (batteryStatus.Capacity != Kernel32.BATTERY_UNKNOWN_CAPACITY)
_remainingCapacity.Value = batteryStatus.Capacity;
else
_remainingCapacity.Value = null;
_chargeLevel.Value = _remainingCapacity.Value * 100f / _fullChargedCapacity.Value;
if (batteryStatus.Voltage is not Kernel32.BATTERY_UNKNOWN_VOLTAGE)
_voltage.Value = batteryStatus.Voltage / 1000f;
else
_voltage.Value = null;
if (batteryStatus.Rate is Kernel32.BATTERY_UNKNOWN_RATE)
{
ChargeDischargeCurrent = null;
_chargeDischargeCurrent.Value = null;
ChargeDischargeRate = null;
_chargeDischargeRate.Value = null;
}
else
{
float rateWatts = batteryStatus.Rate / 1000f;
ChargeDischargeRate = rateWatts;
_chargeDischargeRate.Value = Math.Abs(rateWatts);
float? current = rateWatts / _voltage.Value;
ChargeDischargeCurrent = current;
if (current is not null)
_chargeDischargeCurrent.Value = Math.Abs(current.Value);
else
_chargeDischargeCurrent.Value = null;
if (rateWatts > 0)
{
_chargeDischargeRate.Name = "Charge Rate";
_chargeDischargeCurrent.Name = "Charge Current";
}
else if (rateWatts < 0)
{
_chargeDischargeRate.Name = "Discharge Rate";
_chargeDischargeCurrent.Name = "Discharge Current";
}
else
{
_chargeDischargeRate.Name = "Charge/Discharge Rate";
_chargeDischargeCurrent.Name = "Charge/Discharge Current";
}
}
}
uint estimatedRunTime = 0;
Kernel32.BATTERY_QUERY_INFORMATION bqi = default;
bqi.BatteryTag = _batteryTag;
bqi.InformationLevel = Kernel32.BATTERY_QUERY_INFORMATION_LEVEL.BatteryEstimatedTime;
if (Kernel32.DeviceIoControl(_batteryHandle,
Kernel32.IOCTL.IOCTL_BATTERY_QUERY_INFORMATION,
ref bqi,
Marshal.SizeOf(bqi),
ref estimatedRunTime,
Marshal.SizeOf<uint>(),
out _,
IntPtr.Zero))
{
if (estimatedRunTime != Kernel32.BATTERY_UNKNOWN_TIME)
_remainingTime.Value = estimatedRunTime;
else
_remainingTime.Value = null;
}
else
{
_remainingTime.Value = null;
}
uint temperature = 0;
bqi.InformationLevel = Kernel32.BATTERY_QUERY_INFORMATION_LEVEL.BatteryTemperature;
if (Kernel32.DeviceIoControl(_batteryHandle,
Kernel32.IOCTL.IOCTL_BATTERY_QUERY_INFORMATION,
ref bqi,
Marshal.SizeOf(bqi),
ref temperature,
Marshal.SizeOf<uint>(),
out _,
IntPtr.Zero))
{
_temperature.Value = (temperature / 10f) - 273.15f;
}
else
{
_temperature.Value = null;
}
ActivateSensorIfValueNotNull(_remainingCapacity);
ActivateSensorIfValueNotNull(_chargeLevel);
ActivateSensorIfValueNotNull(_voltage);
ActivateSensorIfValueNotNull(_chargeDischargeCurrent);
ActivateSensorIfValueNotNull(_chargeDischargeRate);
ActivateSensorIfValueNotNull(_remainingTime);
ActivateSensorIfValueNotNull(_temperature);
}
public override void Close()
{
base.Close();
_batteryHandle.Close();
}
}