using System; using System.Xml; using Aitex.Core.Common.DeviceData; using Aitex.Core.RT.DataCenter; using Aitex.Core.RT.Device; using Aitex.Core.RT.OperationCenter; using Aitex.Core.RT.SCCore; using Aitex.Core.RT.Tolerance; namespace MECF.Framework.Common.Device.Bases { public abstract class HeaterBase : BaseDevice, IDevice { private float _currentWarningRange; private float _currentAlarmRange; protected SCConfigItem _scEnableAlarm; protected SCConfigItem _scAlarmTime; protected SCConfigItem _scAlarmRange; protected SCConfigItem _scWarningTime; protected SCConfigItem _scWarningRange; protected ToleranceChecker _toleranceAlarmChecker = new ToleranceChecker(); protected ToleranceChecker _toleranceWarningChecker = new ToleranceChecker(); protected double _currentFineTuningValue; protected SCConfigItem _scFineTuningEnable; protected SCConfigItem _scFineTuningValue; public virtual bool IsPowerOn { get; set; } public virtual float TempSetPoint { get; set; } public virtual float TempFeedback { get; set; } public virtual AITHeaterData DeviceData { get; set; } public virtual double FineTuningValue { get { if (_scFineTuningEnable == null || !_scFineTuningEnable.BoolValue) { return 1.0; } if (_currentFineTuningValue != 0.0) { return 1.0 + _currentFineTuningValue / 100.0; } return (_scFineTuningValue != null) ? (1.0 + _scFineTuningValue.DoubleValue / 100.0) : 1.0; } } public virtual bool EnableAlarm { get { if (_scEnableAlarm != null) { return _scEnableAlarm.BoolValue; } return false; } } public virtual double AlarmTime { get { if (_scAlarmTime != null) { return _scAlarmTime.DoubleValue; } return 0.0; } } public virtual double AlarmRange { get { if (_currentAlarmRange > 0f) { return _currentAlarmRange; } if (_scAlarmRange != null) { return _scAlarmRange.DoubleValue; } return 0.0; } } public virtual double WarningTime { get { if (_scWarningTime != null) { return _scWarningTime.DoubleValue; } return 0.0; } } public virtual double WarningRange { get { if (_currentWarningRange > 0f) { return _currentWarningRange; } if (_scWarningRange != null) { return _scWarningRange.DoubleValue; } return 0.0; } } protected HeaterBase() { } protected HeaterBase(string module, string name, XmlElement node = null, string ioModule = "") : base(module, name, name, name) { if (node != null) { _scEnableAlarm = ParseScNode("scEnableAlarm", node, ioModule, base.Module + "." + base.Name + ".EnableAlarm"); _scAlarmTime = ParseScNode("scAlarmTime", node, ioModule, base.Module + "." + base.Name + ".AlarmTime"); _scAlarmRange = ParseScNode("scAlarmRange", node, ioModule, base.Module + "." + base.Name + ".AlarmRange"); _scWarningTime = ParseScNode("scWarningTime", node, ioModule, base.Module + "." + base.Name + ".WarningTime"); _scWarningRange = ParseScNode("scWarningRange", node, ioModule, base.Module + "." + base.Name + ".WarningRange"); _scFineTuningValue = ParseScNode("scFineTuningValue", node, ioModule, base.Module + ".FineTuning." + base.Name); _scFineTuningEnable = ParseScNode("scFineTuningEnable", node, ioModule, base.Module + ".FineTuning.IsEnable"); } } public virtual bool Initialize() { DATA.Subscribe(base.Module + "." + base.Name + ".DeviceData", () => DeviceData); DATA.Subscribe(base.Module + "." + base.Name + ".TempFeedback", () => TempFeedback); DATA.Subscribe(base.Module + "." + base.Name + ".TempSetPoint", () => TempSetPoint); DATA.Subscribe(base.Module + "." + base.Name + ".IsPowerOn", () => IsPowerOn); OP.Subscribe(base.Module + "." + base.Name + ".SetPowerOn", delegate { SetPowerOnOff(isOn: true); return true; }); OP.Subscribe(base.Module + "." + base.Name + ".SetPowerOff", delegate { SetPowerOnOff(isOn: false); return true; }); OP.Subscribe(base.Module + "." + base.Name + ".SetPowerOnOff", delegate(string function, object[] args) { bool.TryParse(args[0].ToString(), out var result); SetPowerOnOff(result); return true; }); OP.Subscribe(base.Module + "." + base.Name + ".SetTemperature", delegate(string function, object[] args) { SetTemperature((float)args[0]); return true; }); OP.Subscribe(base.Module + "." + base.Name + ".SetTolerance", delegate(out string reason, int time, object[] param) { reason = string.Empty; float num = Convert.ToSingle(param[0]); float num2 = Convert.ToSingle(param[1]); SetTolerance(num, num2); return true; }); OP.Subscribe(base.Module + "." + base.Name + ".SetFineTuning", delegate(out string reason, int time, object[] param) { reason = string.Empty; SetFineTuning(Convert.ToSingle(param[0])); return true; }); return true; } public virtual void SetFineTuning(float fineTuning) { _currentFineTuningValue = fineTuning; } public virtual void SetTolerance(float warning, float alarm) { _currentWarningRange = warning; _currentAlarmRange = alarm; _toleranceAlarmChecker.Reset(AlarmTime); _toleranceWarningChecker.Reset(WarningTime); } public virtual void CheckTolerance() { if (EnableAlarm && TempSetPoint != 0f) { _toleranceAlarmChecker.Monitor(TempFeedback, (double)TempSetPoint * (1.0 - AlarmRange / 100.0), (double)TempSetPoint * (1.0 + AlarmRange / 100.0), AlarmTime); _toleranceWarningChecker.Monitor(TempFeedback, (double)TempSetPoint * (1.0 - WarningRange / 100.0), (double)TempSetPoint * (1.0 + WarningRange / 100.0), WarningTime); } } public virtual bool CheckToleranceAlarm() { if (!EnableAlarm) { return false; } return _toleranceAlarmChecker.Result; } public virtual bool CheckToleranceWarning() { if (!EnableAlarm) { return false; } return _toleranceWarningChecker.Result; } public virtual void SetPowerOnOff(bool isOn) { } public virtual void SetTemperature(float temperature) { } public virtual void Terminate() { } public virtual void Monitor() { CheckTolerance(); } public virtual void Reset() { _toleranceAlarmChecker.Reset(AlarmTime); _toleranceWarningChecker.Reset(WarningTime); } } }