Files
archived-g-helper/app/Gpu/NVidia/NvidiaGpuControl.cs

244 lines
6.9 KiB
C#

using GHelper.Helpers;
using NvAPIWrapper.GPU;
using NvAPIWrapper.Native;
using NvAPIWrapper.Native.GPU;
using NvAPIWrapper.Native.GPU.Structures;
using NvAPIWrapper.Native.Interfaces.GPU;
using System.Diagnostics;
using static NvAPIWrapper.Native.GPU.Structures.PerformanceStates20InfoV1;
namespace GHelper.Gpu.NVidia;
public class NvidiaGpuControl : IGpuControl
{
public static int MaxCoreOffset => AppConfig.Get("max_gpu_core", 250);
public static int MaxMemoryOffset => AppConfig.Get("max_gpu_memory", 500);
public static int MinCoreOffset = AppConfig.Get("min_gpu_core", -250);
public static int MinMemoryOffset = AppConfig.Get("min_gpu_memory", -500);
public const int MinClockLimit = 300;
public const int MaxClockLimit = 3000;
private static PhysicalGPU? _internalGpu;
public NvidiaGpuControl()
{
_internalGpu = GetInternalDiscreteGpu();
}
public bool IsValid => _internalGpu != null;
public bool IsNvidia => IsValid;
public string FullName => _internalGpu!.FullName;
public int? GetCurrentTemperature()
{
if (!IsValid) return null;
PhysicalGPU internalGpu = _internalGpu!;
IThermalSensor? gpuSensor =
GPUApi.GetThermalSettings(internalGpu.Handle).Sensors
.FirstOrDefault(s => s.Target == ThermalSettingsTarget.GPU);
return gpuSensor?.CurrentTemperature;
}
public void Dispose()
{
}
public void KillGPUApps()
{
if (!IsValid) return;
PhysicalGPU internalGpu = _internalGpu!;
try
{
Process[] processes = internalGpu.GetActiveApplications();
foreach (Process process in processes)
try
{
Logger.WriteLine("Kill:" + process.ProcessName);
ProcessHelper.KillByProcess(process);
}
catch (Exception ex)
{
Logger.WriteLine(ex.Message);
}
}
catch (Exception ex)
{
Logger.WriteLine(ex.Message);
}
//GeneralApi.RestartDisplayDriver();
}
public bool GetClocks(out int core, out int memory)
{
PhysicalGPU internalGpu = _internalGpu!;
//Logger.WriteLine(internalGpu.FullName);
//Logger.WriteLine(internalGpu.ArchitectInformation.ToString());
try
{
IPerformanceStates20Info states = GPUApi.GetPerformanceStates20(internalGpu.Handle);
core = states.Clocks[PerformanceStateId.P0_3DPerformance][0].FrequencyDeltaInkHz.DeltaValue / 1000;
memory = states.Clocks[PerformanceStateId.P0_3DPerformance][1].FrequencyDeltaInkHz.DeltaValue / 1000;
Logger.WriteLine($"GET GPU CLOCKS: {core}, {memory}");
foreach (var delta in states.Voltages[PerformanceStateId.P0_3DPerformance])
{
Logger.WriteLine("GPU VOLT:" + delta.IsEditable + " - " + delta.ValueDeltaInMicroVolt.DeltaValue);
}
return true;
}
catch (Exception ex)
{
Logger.WriteLine("GET GPU CLOCKS:" + ex.Message);
core = memory = 0;
return false;
}
}
private bool RunPowershellCommand(string script)
{
try
{
ProcessHelper.RunCMD("powershell", script);
return true;
}
catch (Exception ex)
{
Logger.WriteLine(ex.ToString());
return false;
}
}
public int GetMaxGPUCLock()
{
PhysicalGPU internalGpu = _internalGpu!;
try
{
PrivateClockBoostLockV2 data = GPUApi.GetClockBoostLock(internalGpu.Handle);
int limit = (int)data.ClockBoostLocks[0].VoltageInMicroV / 1000;
Logger.WriteLine("GET CLOCK LIMIT: " + limit);
return limit;
}
catch (Exception ex)
{
Logger.WriteLine("GET CLOCK LIMIT: " + ex.Message);
return -1;
}
}
public int SetMaxGPUClock(int clock)
{
if (clock < MinClockLimit || clock >= MaxClockLimit) clock = 0;
int _clockLimit = GetMaxGPUCLock();
if (_clockLimit < 0 && clock == 0) return 0;
if (_clockLimit != clock)
{
if (clock > 0) RunPowershellCommand($"nvidia-smi -lgc 0,{clock}");
else RunPowershellCommand($"nvidia-smi -rgc");
return 1;
}
else
{
return 0;
}
}
public bool RestartGPU()
{
return RunPowershellCommand(@"$device = Get-PnpDevice | Where-Object { $_.FriendlyName -imatch 'NVIDIA' -and $_.Class -eq 'Display' }; Disable-PnpDevice $device.InstanceId -Confirm:$false; Start-Sleep -Seconds 5; Enable-PnpDevice $device.InstanceId -Confirm:$false");
}
public int SetClocks(int core, int memory)
{
if (core < MinCoreOffset || core > MaxCoreOffset) return 0;
if (memory < MinMemoryOffset || memory > MaxMemoryOffset) return 0;
GetClocks(out int currentCore, out int currentMemory);
// Nothing to set
if (Math.Abs(core - currentCore) < 5 && Math.Abs(memory - currentMemory) < 5) return 0;
PhysicalGPU internalGpu = _internalGpu!;
var coreClock = new PerformanceStates20ClockEntryV1(PublicClockDomain.Graphics, new PerformanceStates20ParameterDelta(core * 1000));
var memoryClock = new PerformanceStates20ClockEntryV1(PublicClockDomain.Memory, new PerformanceStates20ParameterDelta(memory * 1000));
//var voltageEntry = new PerformanceStates20BaseVoltageEntryV1(PerformanceVoltageDomain.Core, new PerformanceStates20ParameterDelta(voltage));
PerformanceStates20ClockEntryV1[] clocks = { coreClock, memoryClock };
PerformanceStates20BaseVoltageEntryV1[] voltages = { };
PerformanceState20[] performanceStates = { new PerformanceState20(PerformanceStateId.P0_3DPerformance, clocks, voltages) };
var overclock = new PerformanceStates20InfoV1(performanceStates, 2, 0);
try
{
Logger.WriteLine($"SET GPU CLOCKS: {core}, {memory}");
GPUApi.SetPerformanceStates20(internalGpu.Handle, overclock);
}
catch (Exception ex)
{
Logger.WriteLine("SET GPU CLOCKS: " + ex.Message);
return -1;
}
return 1;
}
private static PhysicalGPU? GetInternalDiscreteGpu()
{
try
{
return PhysicalGPU
.GetPhysicalGPUs()
.FirstOrDefault(gpu => gpu.SystemType == SystemType.Laptop);
}
catch (Exception ex)
{
Debug.WriteLine(ex.Message);
return null;
}
}
public int? GetGpuUse()
{
if (!IsValid)
return null;
PhysicalGPU internalGpu = _internalGpu!;
IUtilizationDomainInfo? gpuUsage = GPUApi.GetUsages(internalGpu.Handle).GPU;
return (int?)gpuUsage?.Percentage;
}
}