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;
double PrevStateProfit = 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;
PrevStateProfit += device.GetPrevMostProfitValue;
}
}
// 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.GetFullName()));
foreach (var algo in device.Algorithms)
{
stringBuilderDevice.AppendLine(String.Format("\t\tPROFIT = {0}\t(SPEED = {1}\t\t| NHSMA = {2})\t[{3}]",
algo.CurrentProfit.ToString(DOUBLE_FORMAT), // Profit
algo.AvaragedSpeed + (algo.IsDual() ? "/" + algo.SecondaryAveragedSpeed : ""), // Speed
algo.CurNhmSMADataVal + (algo.IsDual() ? "/" + algo.SecondaryCurNhmSMADataVal : ""), // NiceHashData
algo.AlgorithmStringID // Name
));
}
// most profitable
stringBuilderDevice.AppendLine(String.Format("\t\tMOST PROFITABLE ALGO: {0}, PROFIT: {1}",
device.GetMostProfitableString(),
device.GetCurrentMostProfitValue.ToString(DOUBLE_FORMAT)));
stringBuilderFull.AppendLine(stringBuilderDevice.ToString());
}
Helpers.ConsolePrint(TAG, stringBuilderFull.ToString());
}
// check profit threshold
Helpers.ConsolePrint(TAG, String.Format("PrevStateProfit {0}, CurrentProfit {1}", PrevStateProfit, CurrentProfit));
if (PrevStateProfit > 0 && CurrentProfit > 0)
{
double a = Math.Max(PrevStateProfit, CurrentProfit);
double b = Math.Min(PrevStateProfit, CurrentProfit);
//double percDiff = Math.Abs((PrevStateProfit / CurrentProfit) - 1);
double percDiff = ((a - b)) / b;
if (percDiff < ConfigManager.GeneralConfig.SwitchProfitabilityThreshold)
{
// don't switch
Helpers.ConsolePrint(TAG, String.Format("Will NOT switch profit diff is {0}, current threshold {1}", percDiff, ConfigManager.GeneralConfig.SwitchProfitabilityThreshold));
// RESTORE OLD PROFITS STATE
foreach (var device in _miningDevices)
{
device.RestoreOldProfitsState();
}
return;
}
else
{
Helpers.ConsolePrint(TAG, String.Format("Will SWITCH profit diff is {0}, current threshold {1}", percDiff, ConfigManager.GeneralConfig.SwitchProfitabilityThreshold));
}
}
// check if should mine
// Only check if profitable inside this method when getting SMA data, cheching during mining is not reliable
if (CheckIfShouldMine(CurrentProfit, log) == false)
{
return;
}
// group new miners
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);
}
}
private void SwichMostProfitableGroupUpMethod(object sender, SmaUpdateEventArgs e)
{
#if (SWITCH_TESTING)
MiningDevice.SetNextTest();
#endif
var profitableDevices = new List <MiningPair>();
var currentProfit = 0.0d;
var prevStateProfit = 0.0d;
foreach (var device in _miningDevices)
{
// calculate profits
device.CalculateProfits(e.NormalizedProfits);
// check if device has profitable algo
if (device.HasProfitableAlgo())
{
profitableDevices.Add(device.GetMostProfitablePair());
currentProfit += device.GetCurrentMostProfitValue;
prevStateProfit += device.GetPrevMostProfitValue;
}
}
var stringBuilderFull = new StringBuilder();
stringBuilderFull.AppendLine("Current device profits:");
foreach (var device in _miningDevices)
{
var stringBuilderDevice = new StringBuilder();
stringBuilderDevice.AppendLine($"\tProfits for {device.Device.Uuid} ({device.Device.GetFullName()}):");
foreach (var algo in device.Algorithms)
{
stringBuilderDevice.AppendLine(
$"\t\tPROFIT = {algo.CurrentProfit.ToString(DoubleFormat)}" +
$"\t(SPEED = {algo.AvaragedSpeed:e5}" +
$"\t\t| NHSMA = {algo.CurNhmSmaDataVal:e5})" +
$"\t[{algo.AlgorithmStringID}]"
);
if (algo is DualAlgorithm dualAlg)
{
stringBuilderDevice.AppendLine(
$"\t\t\t\t\t Secondary:\t\t {dualAlg.SecondaryAveragedSpeed:e5}" +
$"\t\t\t\t {dualAlg.SecondaryCurNhmSmaDataVal:e5}"
);
}
}
// most profitable
stringBuilderDevice.AppendLine(
$"\t\tMOST PROFITABLE ALGO: {device.GetMostProfitableString()}, PROFIT: {device.GetCurrentMostProfitValue.ToString(DoubleFormat)}");
stringBuilderFull.AppendLine(stringBuilderDevice.ToString());
}
Helpers.ConsolePrint(Tag, stringBuilderFull.ToString());
// check if should mine
// Only check if profitable inside this method when getting SMA data, cheching during mining is not reliable
if (CheckIfShouldMine(currentProfit) == false)
{
foreach (var device in _miningDevices)
{
device.SetNotMining();
}
return;
}
// check profit threshold
Helpers.ConsolePrint(Tag, $"PrevStateProfit {prevStateProfit}, CurrentProfit {currentProfit}");
if (prevStateProfit > 0 && currentProfit > 0)
{
var a = Math.Max(prevStateProfit, currentProfit);
var b = Math.Min(prevStateProfit, currentProfit);
//double percDiff = Math.Abs((PrevStateProfit / CurrentProfit) - 1);
var percDiff = ((a - b)) / b;
if (percDiff < ConfigManager.GeneralConfig.SwitchProfitabilityThreshold)
{
// don't switch
Helpers.ConsolePrint(Tag,
$"Will NOT switch profit diff is {percDiff}, current threshold {ConfigManager.GeneralConfig.SwitchProfitabilityThreshold}");
// RESTORE OLD PROFITS STATE
foreach (var device in _miningDevices)
{
device.RestoreOldProfitsState();
}
return;
}
Helpers.ConsolePrint(Tag,
$"Will SWITCH profit diff is {percDiff}, current threshold {ConfigManager.GeneralConfig.SwitchProfitabilityThreshold}");
}
// group new miners
var newGroupedMiningPairs = new Dictionary <string, List <MiningPair> >();
// group devices with same supported algorithms
{
var currentGroupedDevices = new List <GroupedDevices>();
for (var first = 0; first < profitableDevices.Count; ++first)
{
var firstDev = profitableDevices[first].Device;
// check if is in group
var isInGroup = currentGroupedDevices.Any(groupedDevices => groupedDevices.Contains(firstDev.Uuid));
// 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 (var 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
var toStopGroupMiners = new Dictionary <string, GroupMiner>();
var toRunNewGroupMiners = new Dictionary <string, GroupMiner>();
var noChangeGroupMiners = new Dictionary <string, GroupMiner>();
// check what to stop/update
foreach (var 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)
{
// Check if dcri optimal value has changed
var dcriChanged = false;
foreach (var mPair in _runningGroupMiners[runningGroupKey].Miner.MiningSetup.MiningPairs)
{
if (mPair.Algorithm is DualAlgorithm algo &&
algo.TuningEnabled &&
algo.MostProfitableIntensity != algo.CurrentIntensity)
{
dcriChanged = true;
break;
}
}
// if algoType valid and different from currently running update
if (newAlgoType != _runningGroupMiners[runningGroupKey].DualAlgorithmType || dcriChanged)
{
// 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;
}
else
{
noChangeGroupMiners[runningGroupKey] = _runningGroupMiners[runningGroupKey];
}
}
}
}
// check brand new
foreach (var kvp in newGroupedMiningPairs)
{
var key = kvp.Key;
var miningPairs = kvp.Value;
if (_runningGroupMiners.ContainsKey(key) == false)
{
var newGroupMiner = new GroupMiner(miningPairs, key);
toRunNewGroupMiners[key] = newGroupMiner;
}
}
if ((toStopGroupMiners.Values.Count > 0) || (toRunNewGroupMiners.Values.Count > 0))
{
var stringBuilderPreviousAlgo = new StringBuilder();
var stringBuilderCurrentAlgo = new StringBuilder();
var stringBuilderNoChangeAlgo = new StringBuilder();
// stop old miners
foreach (var toStop in toStopGroupMiners.Values)
{
stringBuilderPreviousAlgo.Append($"{toStop.DevicesInfoString}: {toStop.AlgorithmType}, ");
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)
{
stringBuilderCurrentAlgo.Append($"{toStart.DevicesInfoString}: {toStart.AlgorithmType}, ");
toStart.Start(_miningLocation, _btcAdress, _worker);
_runningGroupMiners[toStart.Key] = toStart;
}
// which miners dosen't change
foreach (var noChange in noChangeGroupMiners.Values)
{
stringBuilderNoChangeAlgo.Append($"{noChange.DevicesInfoString}: {noChange.AlgorithmType}, ");
}
if (stringBuilderPreviousAlgo.Length > 0)
{
Helpers.ConsolePrint(Tag, $"Stop Mining: {stringBuilderPreviousAlgo}");
}
if (stringBuilderCurrentAlgo.Length > 0)
{
Helpers.ConsolePrint(Tag, $"Now Mining : {stringBuilderCurrentAlgo}");
}
if (stringBuilderNoChangeAlgo.Length > 0)
{
Helpers.ConsolePrint(Tag, $"No change : {stringBuilderNoChangeAlgo}");
}
}
}
// stats quick fix code
//if (_currentAllGroupedDevices.Count != _previousAllGroupedDevices.Count) {
//await MinerStatsCheck();
//}
_mainFormRatesComunication?.ForceMinerStatsUpdate();
}
