private static void LogMiningNonMiningStatuses(List <MiningDevice> enabledDevices, List <Tuple <ComputeDevice, DeviceMiningStatus> > disabledDevicesStatuses)
{
// print statuses
if (disabledDevicesStatuses.Count > 0)
{
StringBuilder stringBuilder = new StringBuilder();
stringBuilder.AppendLine("");
stringBuilder.AppendLine("Disabled Devices:");
foreach (var deviceStatus in disabledDevicesStatuses)
{
stringBuilder.AppendLine("\t" + GetDisabledDeviceStatusString(deviceStatus));
}
Helpers.ConsolePrint(TAG, stringBuilder.ToString());
}
if (enabledDevices.Count > 0)
{
// print enabled
StringBuilder stringBuilder = new StringBuilder();
stringBuilder.AppendLine("");
stringBuilder.AppendLine("Enabled Devices for Mining session:");
foreach (var miningDevice in enabledDevices)
{
var device = miningDevice.Device;
stringBuilder.AppendLine(String.Format("\tENABLED ({0})", device.GetFullName()));
foreach (var algo in device.DeviceBenchmarkConfig.AlgorithmSettings.Values)
{
var isEnabled = IsAlgoMiningCapable(algo) && IsValidMinerPath(device, algo);
stringBuilder.AppendLine(String.Format("\t\tALGORITHM {0} ({1})",
isEnabled ? "ENABLED " : "DISABLED", // ENABLED/DISABLED
AlgorithmNiceHashNames.GetName(algo.NiceHashID)));
}
}
Helpers.ConsolePrint(TAG, stringBuilder.ToString());
}
}
public void MinerStatsCheck(Dictionary <AlgorithmType, NiceHashSMA> NiceHashData)
{
double CurrentProfit = 0.0d;
_mainFormRatesComunication.ClearRates(_currentAllGroupedDevices.Count);
foreach (var group in _currentAllGroupedDevices)
{
var groupMiners = _groupedDevicesMiners[CalcGroupedDevicesKey(group)];
Miner m = groupMiners.CurrentWorkingMiner;
// skip if not running
if (!m.IsRunning)
{
continue;
}
APIData AD = m.GetSummary();
if (AD == null)
{
Helpers.ConsolePrint(m.MinerTAG(), "GetSummary returned null..");
}
// set rates
if (NiceHashData != null && AD != null)
{
m.CurrentRate = NiceHashData[AD.AlgorithmID].paying * AD.Speed * 0.000000001;
}
else
{
m.CurrentRate = 0;
// set empty
AD = new APIData()
{
AlgorithmID = m.CurrentAlgorithmType,
AlgorithmName = AlgorithmNiceHashNames.GetName(m.CurrentAlgorithmType),
Speed = 0.0d
};
}
CurrentProfit += m.CurrentRate;
// Update GUI
_mainFormRatesComunication.AddRateInfo(m.MinerTAG(), groupMiners.DevicesInfoString, AD, m.CurrentRate, m.IsAPIReadException);
}
// check if profitabile
if (CheckStatus && !IsMiningRegardlesOfProfit)
{
CheckStatus = false;
if (IsProfitable)
{
// check current profit
CheckIfShouldMine(CurrentProfit, true);
}
else if (!IsProfitable)
{
// recalculate and switch
SwichMostProfitableGroupUpMethod(NiceHashData, true);
}
}
}
public void CalculateProfits(Dictionary <AlgorithmType, double> profits)
{
// save last state
PrevProfitableAlgorithmType = MostProfitableAlgorithmType;
PrevProfitableMinerBaseType = MostProfitableMinerBaseType;
// assume none is profitable
MostProfitableAlgorithmType = AlgorithmType.NONE;
MostProfitableMinerBaseType = MinerBaseType.NONE;
// calculate new profits
foreach (var algo in Algorithms)
{
var key = algo.NiceHashID;
var secondaryKey = algo.SecondaryNiceHashID;
if (profits.TryGetValue(key, out var paying))
{
algo.CurNhmSmaDataVal = paying;
algo.CurrentProfit = algo.CurNhmSmaDataVal * algo.AvaragedSpeed * 0.000000001;
if (profits.TryGetValue(secondaryKey, out var secPaying))
{
algo.SecondaryCurNhmSmaDataVal = secPaying;
algo.CurrentProfit +=
algo.SecondaryCurNhmSmaDataVal * algo.SecondaryAveragedSpeed * 0.000000001;
}
}
else
{
algo.CurrentProfit = 0;
}
}
// find max paying value and save key
double maxProfit = 0;
foreach (var algo in Algorithms)
{
if (maxProfit < algo.CurrentProfit)
{
maxProfit = algo.CurrentProfit;
MostProfitableAlgorithmType = algo.DualNiceHashID();
MostProfitableMinerBaseType = algo.MinerBaseType;
}
}
#if (SWITCH_TESTING)
var devName = Device.GetFullName();
// set new most profit
if (Algorithms.ContainsKey(testingAlgos[next]))
{
MostProfitableKey = testingAlgos[next];
}
else if (ForceNone)
{
MostProfitableKey = AlgorithmType.NONE;
}
var mostProfitKeyName = AlgorithmNiceHashNames.GetName(MostProfitableKey);
Helpers.ConsolePrint("SWITCH_TESTING", String.Format("Setting device {0} to {1}", devName, mostProfitKeyName));
#endif
}
public static void SetNextTest()
{
++next;
if (next >= testingAlgos.Count)
{
next = 0;
}
var mostProfitKeyName = AlgorithmNiceHashNames.GetName(testingAlgos[next]);
Helpers.ConsolePrint("SWITCH_TESTING", String.Format("Setting most MostProfitKey to {0}", mostProfitKeyName));
}
// avarage passed in benchmark values
public static void AvarageSpeeds(List <MiningDevice> miningDevs)
{
// calculate avarage speeds, to ensure mining stability
// device name, algo key, algos refs list
Dictionary <string,
Dictionary <AlgorithmType,
List <MiningAlgorithm> > > avarager = new Dictionary <string, Dictionary <AlgorithmType, List <MiningAlgorithm> > >();
// init empty avarager
foreach (var device in miningDevs)
{
string devName = device.Device.Name;
avarager[devName] = new Dictionary <AlgorithmType, List <MiningAlgorithm> >();
foreach (var key in AlgorithmNiceHashNames.GetAllAvaliableTypes())
{
avarager[devName][key] = new List <MiningAlgorithm>();
}
}
// fill avarager
foreach (var device in miningDevs)
{
string devName = device.Device.Name;
foreach (var kvp in device.Algorithms)
{
var key = kvp.Key;
MiningAlgorithm algo = kvp.Value;
avarager[devName][key].Add(algo);
}
}
// calculate avarages
foreach (var devDict in avarager.Values)
{
foreach (List <MiningAlgorithm> miningAlgosList in devDict.Values)
{
// if list not empty calculate avarage
if (miningAlgosList.Count > 0)
{
// calculate avarage
double sum = 0;
foreach (var algo in miningAlgosList)
{
sum += algo.AvaragedSpeed;
}
double avarageSpeed = sum / miningAlgosList.Count;
// set avarage
foreach (var algo in miningAlgosList)
{
algo.AvaragedSpeed = avarageSpeed;
}
}
}
}
}
public void ShouldReturnNameForValid()
{
var expected = new Dictionary <AlgorithmType, string>
{
{ AlgorithmType.Blake2s, "Blake2s" },
{ AlgorithmType.CryptoNightV8, "CryptoNightV8" }
};
foreach (var key in expected.Keys)
{
Assert.AreEqual(expected[key], AlgorithmNiceHashNames.GetName(key));
}
}
public Algorithm(MinerBaseType minerBaseType, AlgorithmType niceHashID, string minerName = "", bool enabled = true)
{
NiceHashID = niceHashID;
AlgorithmName = AlgorithmNiceHashNames.GetName(NiceHashID);
MinerBaseTypeName = Enum.GetName(typeof(MinerBaseType), minerBaseType);
AlgorithmStringID = MinerBaseTypeName + "_" + AlgorithmName;
MinerBaseType = minerBaseType;
MinerName = minerName;
ExtraLaunchParameters = "";
LessThreads = 0;
Enabled = enabled;
BenchmarkStatus = "";
}
public void CalculateProfits(Dictionary <AlgorithmType, NiceHashSMA> NiceHashData)
{
// assume none is profitable
MostProfitableKey = AlgorithmType.NONE;
// calculate new profits
foreach (var miningAlgo in Algorithms)
{
AlgorithmType key = miningAlgo.Key;
MiningAlgorithm algo = miningAlgo.Value;
if (NiceHashData.ContainsKey(key))
{
algo.CurNhmSMADataVal = NiceHashData[key].paying;
algo.CurrentProfit = algo.CurNhmSMADataVal * algo.AvaragedSpeed * 0.000000001;
}
else
{
algo.CurrentProfit = 0;
}
}
// find max paying value and save key
double maxProfit = 0;
foreach (var miningAlgo in Algorithms)
{
AlgorithmType key = miningAlgo.Key;
MiningAlgorithm algo = miningAlgo.Value;
if (maxProfit < algo.CurrentProfit)
{
maxProfit = algo.CurrentProfit;
MostProfitableKey = key;
}
}
#if (SWITCH_TESTING)
var devName = Device.GetFullName();
// set new most profit
if (Algorithms.ContainsKey(testingAlgos[next]))
{
MostProfitableKey = testingAlgos[next];
}
else if (ForceNone)
{
MostProfitableKey = AlgorithmType.NONE;
}
var mostProfitKeyName = AlgorithmNiceHashNames.GetName(MostProfitableKey);
Helpers.ConsolePrint("SWITCH_TESTING", String.Format("Setting device {0} to {1}", devName, mostProfitKeyName));
#endif
}
public Algorithm(MinerBaseType minerBaseType, AlgorithmType niceHashID, string minerName)
{
NiceHashID = niceHashID;
AlgorithmName = AlgorithmNiceHashNames.GetName(NiceHashID);
MinerBaseTypeName = Enum.GetName(typeof(MinerBaseType), minerBaseType);
AlgorithmStringID = MinerBaseTypeName + "_" + AlgorithmName;
MinerBaseType = minerBaseType;
MinerName = minerName;
ExtraLaunchParameters = "";
LessThreads = 0;
Enabled = !(NiceHashID == AlgorithmType.Nist5 ||
(NiceHashID == AlgorithmType.NeoScrypt && minerBaseType == MinerBaseType.sgminer));
BenchmarkStatus = "";
}
public void CalculateProfits(Dictionary <AlgorithmType, double> profits)
{
// save last state
PrevProfitableAlgorithmType = MostProfitableAlgorithmType;
PrevProfitableMinerBaseType = MostProfitableMinerBaseType;
// assume none is profitable
MostProfitableAlgorithmType = AlgorithmType.NONE;
MostProfitableMinerBaseType = MinerBaseType.NONE;
// calculate new profits
foreach (var algo in Algorithms)
{
algo.UpdateCurProfit(profits);
}
// find max paying value and save key
double maxProfit = 0;
foreach (var algo in Algorithms)
{
if (maxProfit < algo.CurrentProfit)
{
maxProfit = algo.CurrentProfit;
MostProfitableAlgorithmType = algo.DualNiceHashID;
MostProfitableMinerBaseType = algo.MinerBaseType;
}
}
#if (SWITCH_TESTING)
var devName = Device.GetFullName();
// set new most profit
if (Algorithms.ContainsKey(testingAlgos[next]))
{
MostProfitableKey = testingAlgos[next];
}
else if (ForceNone)
{
MostProfitableKey = AlgorithmType.NONE;
}
var mostProfitKeyName = AlgorithmNiceHashNames.GetName(MostProfitableKey);
Helpers.ConsolePrint("SWITCH_TESTING", String.Format("Setting device {0} to {1}", devName, mostProfitKeyName));
#endif
}
public void MinerStatsCheck(Dictionary <AlgorithmType, NiceHashSMA> NiceHashData)
{
_mainFormRatesComunication.ClearRates(_currentAllGroupedDevices.Count);
foreach (var group in _currentAllGroupedDevices)
{
var groupMiners = _groupedDevicesMiners[CalcGroupedDevicesKey(group)];
Miner m = groupMiners.CurrentWorkingMiner;
// skip if not running
if (!m.IsRunning)
{
continue;
}
APIData AD = m.GetSummary();
if (AD == null)
{
Helpers.ConsolePrint(m.MinerTAG(), "GetSummary returned null..");
}
// set rates
if (NiceHashData != null && AD != null)
{
m.CurrentRate = NiceHashData[AD.AlgorithmID].paying * AD.Speed * 0.000000001;
}
else
{
m.CurrentRate = 0;
// set empty
AD = new APIData()
{
AlgorithmID = m.CurrentAlgorithmType,
AlgorithmName = AlgorithmNiceHashNames.GetName(m.CurrentAlgorithmType),
Speed = 0.0d
};
}
// Update GUI
_mainFormRatesComunication.AddRateInfo(m.MinerTAG(), groupMiners.DevicesInfoString, AD, m.CurrentRate, m.IsAPIReadException);
}
}
public Algorithm(MinerBaseType minerBaseType, AlgorithmType niceHashID, string minerName)
{
NiceHashID = niceHashID;
AlgorithmName = AlgorithmNiceHashNames.GetName(NiceHashID);
MinerBaseTypeName = Enum.GetName(typeof(MinerBaseType), minerBaseType);
AlgorithmStringID = MinerBaseTypeName + "_" + AlgorithmName;
MinerBaseType = minerBaseType;
MinerName = minerName;
ExtraLaunchParameters = "";
LessThreads = 0;
Enabled = !(NiceHashID == AlgorithmType.Nist5 ||
(NiceHashID == AlgorithmType.NeoScrypt && minerBaseType == MinerBaseType.sgminer));
Enabled = !(NiceHashID == AlgorithmType.CryptoNightV7) && minerBaseType == MinerBaseType.XmrigAMD;
Enabled = !(NiceHashID == AlgorithmType.CryptoNightV8) && minerBaseType == MinerBaseType.XmrigAMD;
Enabled = !(NiceHashID == AlgorithmType.CryptoNightV8) && minerBaseType == MinerBaseType.SRBMiner;
Enabled = !(NiceHashID == AlgorithmType.CryptoNightHeavy) && minerBaseType == MinerBaseType.SRBMiner;
Enabled = !(NiceHashID == AlgorithmType.Lyra2REv2) && minerBaseType == MinerBaseType.mkxminer;
BenchmarkStatus = "";
}
public void SetNext(ref PerDeviceProifitDictionary devProfits, List <ComputeDevice> enabledDevices)
{
foreach (var cDev in enabledDevices)
{
var devUUID = cDev.UUID;
var curStepCheckIndex = _curStepCheck[devUUID];
var _mostProfitKey = _allAvaliableAlgoKeys[devUUID][curStepCheckIndex];
var mostProfitKeyName = AlgorithmNiceHashNames.GetName(_mostProfitKey);
Helpers.ConsolePrint(TAG, String.Format("Setting most MostProfitKey to {0}", mostProfitKeyName));
// set new most profit
Helpers.ConsolePrint(TAG, String.Format("Setting device {0} to {1}", devUUID, mostProfitKeyName));
devProfits[devUUID][_mostProfitKey] = MOST_PROFIT_REPLACE_VAL;
++curStepCheckIndex;
if (curStepCheckIndex >= _allAvaliableAlgoKeys[devUUID].Count)
{
curStepCheckIndex = 0;
}
_curStepCheck[devUUID] = curStepCheckIndex;
}
}
private void NextBenchmark()
{
if (_bechmarkCurrentIndex > -1)
{
StepUpBenchmarkStepProgress();
}
++_bechmarkCurrentIndex;
if (_bechmarkCurrentIndex >= _benchmarkAlgorithmsCount)
{
EndBenchmark();
return;
}
while (_benchmarkDevicesAlgorithmQueue.Count > 0)
{
var currentDeviceAlgosTuple = _benchmarkDevicesAlgorithmQueue[0];
_currentDevice = currentDeviceAlgosTuple.Item1;
var algorithmBenchmarkQueue = currentDeviceAlgosTuple.Item2;
if (algorithmBenchmarkQueue.Count != 0)
{
_currentAlgorithm = algorithmBenchmarkQueue.Dequeue();
break;
}
_benchmarkDevicesAlgorithmQueue.RemoveAt(0);
}
if (_currentDevice != null && _currentAlgorithm != null)
{
_currentMiner = MinerFactory.CreateMiner(_currentDevice, _currentAlgorithm);
if (_currentAlgorithm.MinerBaseType == MinerBaseType.XmrStackCPU &&
_currentAlgorithm.NiceHashID == AlgorithmType.CryptoNight &&
string.IsNullOrEmpty(_currentAlgorithm.ExtraLaunchParameters) &&
_currentAlgorithm.ExtraLaunchParameters.Contains("enable_ht=true") == false)
{
_cpuBenchmarkStatus = new CpuBenchmarkStatus(Globals.ThreadsPerCpu);
_currentAlgorithm.LessThreads = _cpuBenchmarkStatus.LessTreads;
}
else
{
_cpuBenchmarkStatus = null;
}
if (_currentAlgorithm.MinerBaseType == MinerBaseType.Claymore &&
_currentAlgorithm.NiceHashID == AlgorithmType.Equihash &&
_currentAlgorithm.ExtraLaunchParameters != null &&
!_currentAlgorithm.ExtraLaunchParameters.Contains("-asm"))
{
_claymoreZcashStatus = new ClaymoreZcashStatus(_currentAlgorithm.ExtraLaunchParameters);
_currentAlgorithm.ExtraLaunchParameters = _claymoreZcashStatus.GetTestExtraParams();
}
else
{
_claymoreZcashStatus = null;
}
}
if (_currentMiner != null && _currentAlgorithm != null)
{
_benchmarkMiners.Add(_currentMiner);
_currentAlgoName = AlgorithmNiceHashNames.GetName(_currentAlgorithm.NiceHashID);
_currentMiner.InitBenchmarkSetup(new MiningPair(_currentDevice, _currentAlgorithm));
if (_currentDevice != null)
{
var time = ConfigManager.GeneralConfig.BenchmarkTimeLimits
.GetBenchamrktime(benchmarkOptions1.PerformanceType, _currentDevice.DeviceGroupType);
//currentConfig.TimeLimit = time;
if (_cpuBenchmarkStatus != null)
{
_cpuBenchmarkStatus.Time = time;
}
if (_claymoreZcashStatus != null)
{
_claymoreZcashStatus.Time = time;
}
// dagger about 4 minutes
var showWaitTime = _currentAlgorithm.NiceHashID == AlgorithmType.DaggerHashimoto ? 4 * 60 : time;
_dotCount = 0;
_benchmarkingTimer.Start();
_currentMiner.BenchmarkStart(time, this);
}
algorithmsListView1.SetSpeedStatus(_currentDevice, _currentAlgorithm,
GetDotsWaitString());
}
else
{
NextBenchmark();
}
}
void NextBenchmark()
{
if (_bechmarkCurrentIndex > -1)
{
StepUpBenchmarkStepProgress();
}
++_bechmarkCurrentIndex;
if (_bechmarkCurrentIndex >= _benchmarkAlgorithmsCount)
{
EndBenchmark();
return;
}
Tuple <ComputeDevice, Queue <Algorithm> > currentDeviceAlgosTuple;
Queue <Algorithm> algorithmBenchmarkQueue;
while (_benchmarkDevicesAlgorithmQueue.Count > 0)
{
currentDeviceAlgosTuple = _benchmarkDevicesAlgorithmQueue[0];
_currentDevice = currentDeviceAlgosTuple.Item1;
algorithmBenchmarkQueue = currentDeviceAlgosTuple.Item2;
if (algorithmBenchmarkQueue.Count != 0)
{
_currentAlgorithm = algorithmBenchmarkQueue.Dequeue();
break;
}
else
{
_benchmarkDevicesAlgorithmQueue.RemoveAt(0);
}
}
if (_currentDevice != null && _currentAlgorithm != null)
{
_currentMiner = MinersManager.CreateMiner(_currentDevice, _currentAlgorithm);
if (_currentDevice.DeviceType == DeviceType.CPU && string.IsNullOrEmpty(_currentAlgorithm.ExtraLaunchParameters))
{
__CPUBenchmarkStatus = new CPUBenchmarkStatus();
_currentAlgorithm.LessThreads = __CPUBenchmarkStatus.LessTreads;
}
else
{
__CPUBenchmarkStatus = null;
}
}
if (_currentMiner != null && _currentAlgorithm != null)
{
_benchmarkMiners.Add(_currentMiner);
CurrentAlgoName = AlgorithmNiceHashNames.GetName(_currentAlgorithm.NiceHashID);
_currentMiner.InitBenchmarkSetup(new MiningPair(_currentDevice, _currentAlgorithm));
var time = ConfigManager.GeneralConfig.BenchmarkTimeLimits
.GetBenchamrktime(benchmarkOptions1.PerformanceType, _currentDevice.DeviceGroupType);
//currentConfig.TimeLimit = time;
if (__CPUBenchmarkStatus != null)
{
__CPUBenchmarkStatus.Time = time;
}
// dagger about 4 minutes
var showWaitTime = _currentAlgorithm.NiceHashID == AlgorithmType.DaggerHashimoto ? 4 * 60 : time;
dotCount = 0;
_benchmarkingTimer.Start();
_currentMiner.BenchmarkStart(time, this);
algorithmsListView1.SetSpeedStatus(_currentDevice, _currentAlgorithm.NiceHashID,
getDotsWaitString());
}
else
{
NextBenchmark();
}
}
public MiningSession(List <ComputeDevice> devices,
IMainFormRatesComunication mainFormRatesComunication,
string miningLocation, string worker, string btcAdress)
{
// init fixed
_mainFormRatesComunication = mainFormRatesComunication;
_miningLocation = miningLocation;
if (worker.Length > 0)
{
_workerBtcStringWorker = btcAdress + "." + worker;
}
else
{
_workerBtcStringWorker = btcAdress;
}
// initial settup
{
// used for logging
List <Tuple <ComputeDevice, DeviceMiningStatus> > disabledDevicesStatuses = new List <Tuple <ComputeDevice, DeviceMiningStatus> >();
// logging and settup
List <ComputeDevice> enabledDevices = new List <ComputeDevice>();
// get enabled devices
{
// check passed devices statuses
List <Tuple <ComputeDevice, DeviceMiningStatus> > devicesStatuses = new List <Tuple <ComputeDevice, DeviceMiningStatus> >();
foreach (var device in devices)
{
devicesStatuses.Add(getDeviceMiningStatus(device));
}
// sort device statuses
foreach (var deviceStatus in devicesStatuses)
{
if (deviceStatus.Item2 == DeviceMiningStatus.CanMine)
{
enabledDevices.Add(deviceStatus.Item1);
}
else
{
disabledDevicesStatuses.Add(deviceStatus);
}
}
}
// print statuses
if (disabledDevicesStatuses.Count > 0)
{
Helpers.ConsolePrint(TAG, "Disabled Devices:");
foreach (var deviceStatus in disabledDevicesStatuses)
{
ComputeDevice device = deviceStatus.Item1;
DeviceMiningStatus status = deviceStatus.Item2;
if (status == DeviceMiningStatus.DeviceNull)
{
Helpers.ConsolePrint(TAG, "Critical Device is NULL");
}
else if (status == DeviceMiningStatus.Disabled)
{
Helpers.ConsolePrint(TAG, String.Format("DISABLED ({0})", device.GetFullName()));
}
else if (status == DeviceMiningStatus.NoEnabledAlgorithms)
{
Helpers.ConsolePrint(TAG, String.Format("No Enabled Algorithms ({0})", device.GetFullName()));
}
}
}
if (enabledDevices.Count > 0)
{
// print enabled
Helpers.ConsolePrint(TAG, "Enabled Devices for Mining session:");
foreach (var device in enabledDevices)
{
Helpers.ConsolePrint(TAG, String.Format("ENABLED ({0})", device.GetFullName()));
foreach (var algo in device.DeviceBenchmarkConfig.AlgorithmSettings.Values)
{
var isEnabled = IsAlgoMiningCapable(algo);
Helpers.ConsolePrint(TAG, String.Format("\t\tALGORITHM {0} ({1})",
isEnabled ? "ENABLED " : "DISABLED", // ENABLED/DISABLED
AlgorithmNiceHashNames.GetName(algo.NiceHashID)));
}
}
// settup mining devices
foreach (var device in enabledDevices)
{
_miningDevices.Add(new MiningDevice(device));
}
}
}
if (_miningDevices.Count > 0)
{
// calculate avarage speeds, to ensure mining stability
// device name, algo key, algos refs list
Dictionary <string,
Dictionary <AlgorithmType,
List <MiningAlgorithm> > > avarager = new Dictionary <string, Dictionary <AlgorithmType, List <MiningAlgorithm> > >();
// init empty avarager
foreach (var device in _miningDevices)
{
string devName = device.Device.Name;
avarager[devName] = new Dictionary <AlgorithmType, List <MiningAlgorithm> >();
foreach (var key in AlgorithmNiceHashNames.GetAllAvaliableTypes())
{
avarager[devName][key] = new List <MiningAlgorithm>();
}
}
// fill avarager
foreach (var device in _miningDevices)
{
string devName = device.Device.Name;
foreach (var kvp in device.Algorithms)
{
var key = kvp.Key;
MiningAlgorithm algo = kvp.Value;
avarager[devName][key].Add(algo);
}
}
// calculate avarages
foreach (var devDict in avarager.Values)
{
foreach (List <MiningAlgorithm> miningAlgosList in devDict.Values)
{
// if list not empty calculate avarage
if (miningAlgosList.Count > 0)
{
// calculate avarage
double sum = 0;
foreach (var algo in miningAlgosList)
{
sum += algo.AvaragedSpeed;
}
double avarageSpeed = sum / miningAlgosList.Count;
// set avarage
foreach (var algo in miningAlgosList)
{
algo.AvaragedSpeed = avarageSpeed;
}
}
}
}
}
// init timer stuff
_preventSleepTimer = new Timer();
_preventSleepTimer.Elapsed += PreventSleepTimer_Tick;
// sleep time is minimal 1 minute
_preventSleepTimer.Interval = 20 * 1000; // leave this interval, it works
// set internet checking
_internetCheckTimer = new Timer();
_internetCheckTimer.Elapsed += InternetCheckTimer_Tick;
_internetCheckTimer.Interval = 1000 * 30 * 1; // every minute or 5?? // 1000 * 60 * 1
_miningStatusCheckTimer = new Timer();
_miningStatusCheckTimer.Elapsed += MiningStatusCheckTimer_Tick;
_miningStatusCheckTimer.Interval = 1000 * 30;
// assume profitable
IsProfitable = true;
// assume we have internet
IsConnectedToInternet = true;
if (IsMiningEnabled)
{
_preventSleepTimer.Start();
_internetCheckTimer.Start();
_miningStatusCheckTimer.Start();
}
IsMiningRegardlesOfProfit = ConfigManager.Instance.GeneralConfig.MinimumProfit == 0;
}
public void ShouldReturnNotFoundForInvalid()
{
var x = AlgorithmNiceHashNames.GetName((AlgorithmType)100);
Assert.AreEqual("NameNotFound type not supported", x);
}
public void SwichMostProfitableGroupUpMethod(Dictionary <AlgorithmType, NiceHashSMA> NiceHashData, bool log = true)
{
#if (SWITCH_TESTING)
MiningDevice.SetNextTest();
#endif
List <MiningPair> profitableDevices = new List <MiningPair>();
double CurrentProfit = 0.0d;
foreach (var device in _miningDevices)
{
// calculate profits
device.CalculateProfits(NiceHashData);
// check if device has profitable algo
if (device.HasProfitableAlgo())
{
profitableDevices.Add(device.GetMostProfitablePair());
CurrentProfit += device.GetCurrentMostProfitValue;
}
}
// print profit statuses
if (log)
{
StringBuilder stringBuilderFull = new StringBuilder();
stringBuilderFull.AppendLine("Current device profits:");
foreach (var device in _miningDevices)
{
StringBuilder stringBuilderDevice = new StringBuilder();
stringBuilderDevice.AppendLine(String.Format("\tProfits for {0} ({1}):", device.Device.UUID, device.Device.Name));
foreach (var algo in device.Algorithms)
{
stringBuilderDevice.AppendLine(String.Format("\t\tPROFIT = {0}\t(SPEED = {1}\t\t| NHSMA = {2})\t[{3}]",
algo.Value.CurrentProfit.ToString(DOUBLE_FORMAT), // Profit
algo.Value.AvaragedSpeed, // Speed
algo.Value.CurNhmSMADataVal, // NiceHashData
AlgorithmNiceHashNames.GetName(algo.Key) // Name
));
}
// most profitable
stringBuilderDevice.AppendLine(String.Format("\t\tMOST PROFITABLE ALGO: {0}, PROFIT: {1}",
AlgorithmNiceHashNames.GetName(device.MostProfitableKey),
device.GetCurrentMostProfitValue.ToString(DOUBLE_FORMAT)));
stringBuilderFull.AppendLine(stringBuilderDevice.ToString());
}
Helpers.ConsolePrint(TAG, stringBuilderFull.ToString());
}
// check if should mine
if (CheckIfShouldMine(CurrentProfit, log) == false)
{
return;
}
Dictionary <string, List <MiningPair> > newGroupedMiningPairs = new Dictionary <string, List <MiningPair> >();
// group devices with same supported algorithms
{
var currentGroupedDevices = new List <GroupedDevices>();
for (int first = 0; first < profitableDevices.Count; ++first)
{
var firstDev = profitableDevices[first].Device;
// check if is in group
bool isInGroup = false;
foreach (var groupedDevices in currentGroupedDevices)
{
if (groupedDevices.Contains(firstDev.UUID))
{
isInGroup = true;
break;
}
}
// if device is not in any group create new group and check if other device should group
if (isInGroup == false)
{
var newGroup = new GroupedDevices();
var miningPairs = new List <MiningPair>()
{
profitableDevices[first]
};
newGroup.Add(firstDev.UUID);
for (int second = first + 1; second < profitableDevices.Count; ++second)
{
// check if we should group
var firstPair = profitableDevices[first];
var secondPair = profitableDevices[second];
if (GroupingLogic.ShouldGroup(firstPair, secondPair))
{
var secondDev = profitableDevices[second].Device;
newGroup.Add(secondDev.UUID);
miningPairs.Add(profitableDevices[second]);
}
}
currentGroupedDevices.Add(newGroup);
newGroupedMiningPairs[CalcGroupedDevicesKey(newGroup)] = miningPairs;
}
}
}
//bool IsMinerStatsCheckUpdate = false;
{
// check which groupMiners should be stopped and which ones should be started and which to keep running
Dictionary <string, GroupMiner> toStopGroupMiners = new Dictionary <string, GroupMiner>();
Dictionary <string, GroupMiner> toRunNewGroupMiners = new Dictionary <string, GroupMiner>();
// check what to stop/update
foreach (string runningGroupKey in _runningGroupMiners.Keys)
{
if (newGroupedMiningPairs.ContainsKey(runningGroupKey) == false)
{
// runningGroupKey not in new group definately needs to be stopped and removed from curently running
toStopGroupMiners[runningGroupKey] = _runningGroupMiners[runningGroupKey];
}
else
{
// runningGroupKey is contained but needs to check if mining algorithm is changed
var miningPairs = newGroupedMiningPairs[runningGroupKey];
var newAlgoType = GetMinerPairAlgorithmType(miningPairs);
if (newAlgoType != AlgorithmType.NONE && newAlgoType != AlgorithmType.INVALID)
{
// if algoType valid and different from currently running update
if (newAlgoType != _runningGroupMiners[runningGroupKey].AlgorithmType)
{
// remove current one and schedule to stop mining
toStopGroupMiners[runningGroupKey] = _runningGroupMiners[runningGroupKey];
// create new one TODO check if DaggerHashimoto
GroupMiner newGroupMiner = null;
if (newAlgoType == AlgorithmType.DaggerHashimoto)
{
if (_ethminerNVIDIAPaused != null && _ethminerNVIDIAPaused.Key == runningGroupKey)
{
newGroupMiner = _ethminerNVIDIAPaused;
}
if (_ethminerAMDPaused != null && _ethminerAMDPaused.Key == runningGroupKey)
{
newGroupMiner = _ethminerAMDPaused;
}
}
if (newGroupMiner == null)
{
newGroupMiner = new GroupMiner(miningPairs, runningGroupKey);
}
toRunNewGroupMiners[runningGroupKey] = newGroupMiner;
}
}
}
}
// check brand new
foreach (var kvp in newGroupedMiningPairs)
{
var key = kvp.Key;
var miningPairs = kvp.Value;
if (_runningGroupMiners.ContainsKey(key) == false)
{
GroupMiner newGroupMiner = new GroupMiner(miningPairs, key);
toRunNewGroupMiners[key] = newGroupMiner;
}
}
// stop old miners
foreach (var toStop in toStopGroupMiners.Values)
{
toStop.Stop();
_runningGroupMiners.Remove(toStop.Key);
// TODO check if daggerHashimoto and save
if (toStop.AlgorithmType == AlgorithmType.DaggerHashimoto)
{
if (toStop.DeviceType == DeviceType.NVIDIA)
{
_ethminerNVIDIAPaused = toStop;
}
else if (toStop.DeviceType == DeviceType.AMD)
{
_ethminerAMDPaused = toStop;
}
}
}
// start new miners
foreach (var toStart in toRunNewGroupMiners.Values)
{
toStart.Start(_miningLocation, _btcAdress, _worker);
_runningGroupMiners[toStart.Key] = toStart;
}
}
// stats quick fix code
//if (_currentAllGroupedDevices.Count != _previousAllGroupedDevices.Count) {
MinerStatsCheck(NiceHashData);
//}
}
public void SwichMostProfitableGroupUpMethod(Dictionary <AlgorithmType, NiceHashSMA> NiceHashData, bool log = true)
{
List <MiningDevice> profitableDevices = new List <MiningDevice>();
double CurrentProfit = 0.0d;
foreach (var device in _miningDevices)
{
// calculate profits
device.CalculateProfits(NiceHashData);
// check if device has profitable algo
if (device.MostProfitableKey != AlgorithmType.NONE)
{
profitableDevices.Add(device);
CurrentProfit += device.GetCurrentMostProfitValue;
device.Device.MostProfitableAlgorithm = device.Algorithms[device.MostProfitableKey].algoRef;
}
}
// print profit statuses
if (log)
{
StringBuilder stringBuilderFull = new StringBuilder();
stringBuilderFull.AppendLine("Current device profits:");
foreach (var device in _miningDevices)
{
StringBuilder stringBuilderDevice = new StringBuilder();
stringBuilderDevice.AppendLine(String.Format("\tProfits for {0} ({1}):", device.Device.UUID, device.Device.Name));
foreach (var algo in device.Algorithms)
{
stringBuilderDevice.AppendLine(String.Format("\t\tPROFIT = {0}\t(SPEED = {1}\t\t| NHSMA = {2})\t[{3}]",
algo.Value.CurrentProfit.ToString(DOUBLE_FORMAT), // Profit
algo.Value.AvaragedSpeed, // Speed
algo.Value.CurNhmSMADataVal, // NiceHashData
AlgorithmNiceHashNames.GetName(algo.Key) // Name
));
}
// most profitable
stringBuilderDevice.AppendLine(String.Format("\t\tMOST PROFITABLE ALGO: {0}, PROFIT: {1}",
AlgorithmNiceHashNames.GetName(device.MostProfitableKey),
device.GetCurrentMostProfitValue.ToString(DOUBLE_FORMAT)));
stringBuilderFull.AppendLine(stringBuilderDevice.ToString());
}
Helpers.ConsolePrint(TAG, stringBuilderFull.ToString());
}
// check if should mine
if (CheckIfShouldMine(CurrentProfit, log) == false)
{
return;
}
// group devices with same supported algorithms
_previousAllGroupedDevices = _currentAllGroupedDevices;
_currentAllGroupedDevices = new List <SortedSet <string> >();
Dictionary <GroupedDevices, Algorithm> newGroupAndAlgorithm = new Dictionary <GroupedDevices, Algorithm>();
for (int first = 0; first < profitableDevices.Count; ++first)
{
var firstDev = profitableDevices[first].Device;
// skip if no algorithm is profitable
if (firstDev.MostProfitableAlgorithm == null)
{
if (log)
{
Helpers.ConsolePrint("SwichMostProfitableGroupUpMethod", String.Format("Device {0}, MostProfitableAlgorithm == null", firstDev.Name));
}
continue;
}
// check if is in group
bool isInGroup = false;
foreach (var groupedDevices in _currentAllGroupedDevices)
{
if (groupedDevices.Contains(firstDev.UUID))
{
isInGroup = true;
break;
}
}
if (isInGroup)
{
continue;
}
var newGroup = new GroupedDevices();
newGroup.Add(firstDev.UUID);
for (int second = first + 1; second < profitableDevices.Count; ++second)
{
var secondDev = profitableDevices[second].Device;
// first check if second device has profitable algorithm
if (secondDev.MostProfitableAlgorithm != null)
{
// check if we should group
if (GroupingLogic.IsEquihashGroupLogic(firstDev, secondDev) ||
GroupingLogic.IsDaggerAndSameComputePlatform(firstDev, secondDev) ||
GroupingLogic.IsGroupBinaryAndAlgorithmSame(firstDev, secondDev))
{
newGroup.Add(secondDev.UUID);
}
}
}
_currentAllGroupedDevices.Add(newGroup);
newGroupAndAlgorithm.Add(newGroup, firstDev.MostProfitableAlgorithm);
}
// stop groupes that aren't in current group devices
foreach (var curPrevGroup in _previousAllGroupedDevices)
{
var curPrevGroupKey = CalcGroupedDevicesKey(curPrevGroup);
bool contains = false;
foreach (var curCheckGroup in _currentAllGroupedDevices)
{
var curCheckGroupKey = CalcGroupedDevicesKey(curCheckGroup);
if (curPrevGroupKey == curCheckGroupKey)
{
contains = true;
break;
}
}
if (!contains)
{
_groupedDevicesMiners[curPrevGroupKey].Stop();
}
}
// switch to newGroupAndAlgorithm most profitable algorithm
foreach (var kvpGroupAlgorithm in newGroupAndAlgorithm)
{
var group = kvpGroupAlgorithm.Key;
var algorithm = kvpGroupAlgorithm.Value;
GroupMiners currentGroupMiners;
// try find if it doesn't exist create new
string groupStringKey = CalcGroupedDevicesKey(group);
if (!_groupedDevicesMiners.TryGetValue(groupStringKey, out currentGroupMiners))
{
currentGroupMiners = new GroupMiners(group);
_groupedDevicesMiners.Add(groupStringKey, currentGroupMiners);
}
currentGroupMiners.StartAlgorihtm(algorithm, _miningLocation, _workerBtcStringWorker);
}
// stats quick fix code
if (_currentAllGroupedDevices.Count != _previousAllGroupedDevices.Count)
{
MinerStatsCheck(NiceHashData);
}
}
PerDeviceProifitDictionary GetEnabledDeviceProifitDictionary(PerDeviceSpeedDictionary speedDict, Dictionary <AlgorithmType, NiceHashSMA> NiceHashData)
{
PerDeviceProifitDictionary profitDict = new PerDeviceProifitDictionary();
// log stuff
int MAX_NAME_LEN = "daggerhashimoto".Length;
int MAX_SPEED_LEN = 15;
StringBuilder stringBuilderFull = new StringBuilder();
stringBuilderFull.AppendLine("Current device profits:");
foreach (var nameBenchKvp in speedDict)
{
var deviceUUID = nameBenchKvp.Key;
var curDevProfits = new Dictionary <AlgorithmType, double>();
StringBuilder stringBuilderDevice = new StringBuilder();
stringBuilderDevice.AppendLine(String.Format("\tProfits for {0} ({1}):", deviceUUID, ComputeDevice.GetNameForUUID(deviceUUID)));
AlgorithmType mostProfitKey = AlgorithmType.NONE;
double mostProfitAlgoVal = -1;
foreach (var algoSpeedKvp in nameBenchKvp.Value)
{
// Log stuff and calculation
string name = AlgorithmNiceHashNames.GetName(algoSpeedKvp.Key);
int namePreatyCount = MAX_NAME_LEN - name.Length;
if (namePreatyCount <= 0)
{
namePreatyCount = 1;
}
string namePreaty = name + new String(' ', namePreatyCount);
bool isEnabled = algoSpeedKvp.Value > 0;
double nhmSMADataVal = NiceHashData[algoSpeedKvp.Key].paying;
// TODO what is the constant at the end?
double algoProfit = algoSpeedKvp.Value * nhmSMADataVal * 0.000000001;
// calculate
if (isEnabled)
{
curDevProfits.Add(algoSpeedKvp.Key, algoProfit);
if (mostProfitAlgoVal < algoProfit)
{
mostProfitKey = algoSpeedKvp.Key;
mostProfitAlgoVal = algoProfit;
}
}
else
{
// if disabled make unprofitable
curDevProfits.Add(algoSpeedKvp.Key, -1000000);
algoProfit *= -1; // make bigger then 0 for logging reasons
}
// log stuff
string speedStr = algoSpeedKvp.Value.ToString("F3");
int speedStrCount = MAX_SPEED_LEN - speedStr.Length;
if (speedStrCount <= 0)
{
speedStrCount = 1;
}
string speedPreaty = new String(' ', speedStrCount) + speedStr;
stringBuilderDevice.AppendLine(String.Format("\t\t{0}\t:\tPROFIT = {1} ({2}, SPEED = {3}, NHSMA = {4})",
namePreaty, // Name
algoProfit.ToString(DOUBLE_FORMAT), // Profit
isEnabled ? "ENABLED " : "DISABLED", // ENABLED/DISABLED
speedPreaty, // Speed
nhmSMADataVal.ToString(DOUBLE_FORMAT) // NiceHashData
));
}
// add profits
profitDict.Add(deviceUUID, curDevProfits);
// log stuff
stringBuilderDevice.AppendLine(String.Format("\t\tMOST PROFITABLE (ENABLED) ALGO: {0}, PROFIT: {1}",
AlgorithmNiceHashNames.GetName(mostProfitKey),
mostProfitAlgoVal.ToString(DOUBLE_FORMAT)));
stringBuilderFull.AppendLine(stringBuilderDevice.ToString());
}
Helpers.ConsolePrint(TAG, stringBuilderFull.ToString());
return(profitDict);
}
void NextBenchmark()
{
if (_bechmarkCurrentIndex > -1)
{
StepUpBenchmarkStepProgress();
}
++_bechmarkCurrentIndex;
if (_bechmarkCurrentIndex >= _benchmarkAlgorithmsCount)
{
EndBenchmark();
return;
}
Tuple <ComputeDevice, Queue <Algorithm> > currentDeviceAlgosTuple;
Queue <Algorithm> algorithmBenchmarkQueue;
while (_benchmarkDevicesAlgorithmQueue.Count > 0)
{
currentDeviceAlgosTuple = _benchmarkDevicesAlgorithmQueue[0];
_currentDevice = currentDeviceAlgosTuple.Item1;
algorithmBenchmarkQueue = currentDeviceAlgosTuple.Item2;
if (algorithmBenchmarkQueue.Count != 0)
{
_currentAlgorithm = algorithmBenchmarkQueue.Dequeue();
break;
}
else
{
_benchmarkDevicesAlgorithmQueue.RemoveAt(0);
}
}
var currentConfig = _currentDevice.DeviceBenchmarkConfig;
if (_currentDevice.DeviceGroupType == DeviceGroupType.CPU)
{
_currentMiner = MinersManager.GetCpuMiner(_currentDevice.Group);
}
else
{
_currentMiner = MinersManager.CreateMiner(currentConfig.DeviceGroupType, _currentAlgorithm.NiceHashID);
}
if (_currentMiner != null && _currentAlgorithm != null)
{
_benchmarkMiners.Add(_currentMiner);
CurrentAlgoName = AlgorithmNiceHashNames.GetName(_currentAlgorithm.NiceHashID);
// this has no effect for CPU miners
_currentMiner.SetCDevs(new string[] { _currentDevice.UUID });
var time = ConfigManager.Instance.GeneralConfig.BenchmarkTimeLimits
.GetBenchamrktime(benchmarkOptions1.PerformanceType, _currentDevice.DeviceGroupType);
//currentConfig.TimeLimit = time;
// dagger about 4 minutes
var showWaitTime = _currentAlgorithm.NiceHashID == AlgorithmType.DaggerHashimoto ? 4 * 60 : time;
dotCount = 0;
_benchmarkingTimer.Start();
_currentMiner.BenchmarkStart(_currentDevice, _currentAlgorithm, time, this);
algorithmsListView1.SetSpeedStatus(_currentDevice, _currentAlgorithm.NiceHashID,
getDotsWaitString());
}
else
{
NextBenchmark();
}
}
void NextBenchmark()
{
++_bechmarkCurrentIndex;
if (_bechmarkCurrentIndex >= _benchmarkAlgorithmsCount)
{
EndBenchmark();
return;
}
Tuple <ComputeDevice, Queue <Algorithm> > currentDeviceAlgosTuple;
Queue <Algorithm> algorithmBenchmarkQueue;
while (_benchmarkDevicesAlgorithmQueue.Count > 0)
{
currentDeviceAlgosTuple = _benchmarkDevicesAlgorithmQueue[0];
_currentDevice = currentDeviceAlgosTuple.Item1;
algorithmBenchmarkQueue = currentDeviceAlgosTuple.Item2;
if (algorithmBenchmarkQueue.Count != 0)
{
_currentAlgorithm = algorithmBenchmarkQueue.Dequeue();
break;
}
else
{
_benchmarkDevicesAlgorithmQueue.RemoveAt(0);
}
}
if (_currentDevice != null && _currentAlgorithm != null)
{
_currentMiner = MinerFactory.CreateMiner(_currentDevice, _currentAlgorithm);
if (_currentAlgorithm.MinerBaseType == MinerBaseType.XmrStackCPU && _currentAlgorithm.NiceHashID == AlgorithmType.CryptoNight && string.IsNullOrEmpty(_currentAlgorithm.ExtraLaunchParameters) && _currentAlgorithm.ExtraLaunchParameters.Contains("enable_ht=true") == false)
{
__CPUBenchmarkStatus = new CPUBenchmarkStatus(Globals.ThreadsPerCPU);
_currentAlgorithm.LessThreads = __CPUBenchmarkStatus.LessTreads;
}
else
{
__CPUBenchmarkStatus = null;
}
if (_currentAlgorithm.MinerBaseType == MinerBaseType.ClaymoreAMD && _currentAlgorithm.NiceHashID == AlgorithmType.Equihash && _currentAlgorithm.ExtraLaunchParameters != null && !_currentAlgorithm.ExtraLaunchParameters.Contains("-asm"))
{
__ClaymoreZcashStatus = new ClaymoreZcashStatus(_currentAlgorithm.ExtraLaunchParameters);
_currentAlgorithm.ExtraLaunchParameters = __ClaymoreZcashStatus.GetTestExtraParams();
}
else
{
__ClaymoreZcashStatus = null;
}
}
if (_currentMiner != null && _currentAlgorithm != null)
{
_benchmarkMiners.Add(_currentMiner);
CurrentAlgoName = AlgorithmNiceHashNames.GetName(_currentAlgorithm.NiceHashID);
_currentMiner.InitBenchmarkSetup(new MiningPair(_currentDevice, _currentAlgorithm));
var time = ConfigManager.GeneralConfig.BenchmarkTimeLimits
.GetBenchamrktime(BenchmarkPerformanceType.Quick, _currentDevice.DeviceGroupType);
//currentConfig.TimeLimit = time;
if (__CPUBenchmarkStatus != null)
{
__CPUBenchmarkStatus.Time = time;
}
if (__ClaymoreZcashStatus != null)
{
__ClaymoreZcashStatus.Time = time;
}
// dagger about 4 minutes
var showWaitTime = _currentAlgorithm.NiceHashID == AlgorithmType.DaggerHashimoto ? 4 * 60 : time;
// dotCount = 0;
//_benchmarkingTimer.Start();
_currentMiner.BenchmarkStart(time, this);
}
else
{
NextBenchmark();
}
}
