public static int Width(uint ascanNum, uint ascanPort, GateType type, ref double width)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].Width;
double val = 0;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqGet(ascanNum, ascanPort, attr, ref val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Get the Width of gate failed", "错误：获得门的宽度失败");
return(error_code);
}
width = val;
SetGateDAQ.setWidthDictionary(ascanNum, ascanPort, type, width);
return(error_code);
}
public static int DnsBw(uint ascanNum, GateType type, double dnsBw)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].DnsBw;
double val = dnsBw;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqSet(ascanNum, attr, val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Set the dns Band width failed!", "错误:设置BNS Bandwidth失败!");
}
return(error_code);
}
/**get gate suppress counter active*/
public static int ScActive(uint ascanNum, uint ascanPort, GateType type, SuppressCounterActive active)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].ScActive;
uint val = (uint)active;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqSet(ascanNum, ascanPort, attr, val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Set the Active of Suppress Counter failed!", "错误:设置Suppress Counter Active失败!");
}
return(error_code);
}
public static void setDelayDictionary(uint ascanNum, uint ascanPort, GateType type, double delay)
{
SessionInfo info = SessionHardWare.getSessionAttr((int)ascanNum);
if (info == null)
{
return;
}
int classNum = (int)info.myHardInfo.ClassicNum;
int slotNum = (int)info.myHardInfo.SlotNum;
int upPort = (classNum << 16) + (slotNum << 8) + (int)ascanPort;
switch (type)
{
case GateType.I:
delayForGateI[upPort] = delay;
break;
case GateType.A:
delayForGateA[upPort] = delay;
break;
case GateType.B:
delayForGateB[upPort] = delay;
break;
case GateType.C:
delayForGateC[upPort] = delay;
break;
}
}
public static int Delay(uint ascanNum, uint ascanPort, GateType type, double delay)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].Delay;
double val = delay;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqSet(ascanNum, ascanPort, attr, val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Set the Delay of gate failed", "错误：设置门的起始位置失败");
return(error_code);
}
setDelayDictionary(ascanNum, ascanPort, type, val);
return(error_code);
}
public static int tofMode(uint ascanNum, uint ascanPort, GateType type, TofMode mode)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].TofMode;
uint val = (uint)mode;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqSet(ascanNum, ascanPort, attr, val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Set TOF Mode failed!", "错误:设置TOF Mode失败!");
}
return(error_code);
}
public static GateDefinition Get(GateType gateType, Gate gate)
{
if (Definitions == null)
{
LoadAll();
}
var definition = Definitions[gateType];
foreach (var inputName in definition.Inputs)
{
if (!gate.InputAnchors.Any(a => a.Name.Equals(inputName)))
{
throw new InvalidOperationException($"Gate {gateType} has no {inputName} input anchor");
}
}
foreach (var outputName in definition.Outputs)
{
if (!gate.OutputAnchors.Any(a => a.Name.Equals(outputName)))
{
throw new InvalidOperationException($"Gate {gateType} has no {outputName} output anchor");
}
}
if (definition.HasState)
{
return(definition.New);
}
else
{
return(definition);
}
}
private void UpdateItemPopupDrawer(GateType gateType)
{
switch (gateType)
{
case GateType.ScoreGate:
_itemPopupDrawer = new ItemPopupDrawer(ItemType.Score, false, null);
_itemPopupLabel = "Score";
break;
case GateType.VirtualItemGate:
_itemPopupDrawer = new ItemPopupDrawer(ItemType.VirtualItem, false,
VirtualItemType.VirtualCurrency | VirtualItemType.SingleUseItem);
_itemPopupLabel = "Virtual Item";
break;
case GateType.WorldCompletionGate:
_itemPopupDrawer = new ItemPopupDrawer(ItemType.World, false, null);
_itemPopupLabel = "World";
break;
case GateType.PurchasableGate:
_itemPopupDrawer = new ItemPopupDrawer(ItemType.VirtualItem, false,
VirtualItemType.LifeTimeItem);
_itemPopupLabel = "Purchasable Item";
break;
default:
_itemPopupDrawer = null;
break;
}
UpdateSubGatesPopupDrawers();
}
public LogicGate(GateType gateType, List <ISignal> inputSignals, ISignal outputSignal)
{
this.name = ".logicGate" + ++gateCount;
this.gateType = gateType;
this.inputSignals = inputSignals;
this.outputSignal = outputSignal;
}
public static int TolMonitorMax(uint ascanNum, uint ascanPort, GateType type, double max)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].TolMonitorMax;
double val = max;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqSet(ascanNum, ascanPort, attr, val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Set Tolerance Monitor Max failed!", "错误:设置Tolerance Monitor Max失败!");
}
return(error_code);
}
public static int TolMonitorMin(uint ascanNum, uint ascanPort, GateType type, ref double min)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].TolMonitorMax;
double val = 0;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqGet(ascanNum, ascanPort, attr, ref val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Get Tolerance Monitor Min failed!", "错误:获取Tolerance Monitor Min失败!");
}
min = val;
return(error_code);
}
public static int Threshold(uint ascanNum, uint ascanPort, GateType type, ref double threshold)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].Threshold;
double val = 0;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqGet((uint)ascanNum, ascanPort, attr, ref val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Get the Threshold of gate failed", "错误：获得门的高度失败");
}
threshold = val;
return(error_code);
}
public static int DtsStep(uint ascanNum, GateType type, double step)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].DtsStep;
double val = step;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqSet(ascanNum, attr, val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Set the dts Step failed!", "错误:设置BTS step失败!");
}
return(error_code);
}
public static int Width(uint ascanNum, GateType type, double width)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].Width;
double val = width;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqSet(ascanNum, attr, val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Set the Width of gate failed", "错误：设置门的宽度失败");
}
return(error_code);
}
private void cmsItem_CI_amp_Click(object sender, EventArgs e)
{
selectedGate = GateType.CI; //CI
gateDataType = DataType.Amp; //amp
tChartAscan.Header.Text = "Gate CI — Amp — velocity:" + velocity + "mm/us";
ResetTchart();
}
/**TM suppress counter(TMSc)*/
public static int TolMonitorSc(uint ascanNum, GateType type, uint cnt)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].TolMonitorSc;
uint val = cnt;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqSet(ascanNum, attr, val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Set Tolerance Monitor Suppress Counter failed!", "错误:设置Tolerance Monitor Suppress Counter失败!");
}
return(error_code);
}
/**gate measment mode, pls see MeasMode Enum for part of list*/
public static int MeasMode(uint ascanNum, uint ascanPort, GateType type, ref MeasMode mode)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].MeasMode;
uint val = 0;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqGet(ascanNum, ascanPort, attr, ref val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Get the Gate measment mode failed!", "错误:获取Gate measment mode失败!");
}
mode = (MeasMode)val;
return(error_code);
}
public static int AlarmLogic(uint ascanNum, GateType type, GateAlarmLogic logic)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].AlarmLogic;
uint val = (uint)logic;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqSet(ascanNum, attr, val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Set the Gate Alarm Logic failed!", "错误:设置Gate Alarm Logic失败!");
}
return(error_code);
}
public static int AlarmSignalLength(uint ascanNum, uint ascanPort, GateType type, ref GateAlarmSignalLength len)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].AlarmSignalLength;
uint val = 0;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqGet(ascanNum, ascanPort, attr, ref val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Get the Gate alarm signal length failed!", "错误:获取Gate alarm signal length失败!");
}
len = (GateAlarmSignalLength)val;
return(error_code);
}
////public static int AlarmTimeLength(uint ascanNum, uint ascanPort, GateType type, ref GateAlarmSignalLength len)
//{
// int error_code;
// int gateNum = (int)type;
// uint attr = DaqAttrType.gate[gateNum].AlarmActive;
// uint val = (uint)len;
// if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
// {
// error_code = -1;
// return error_code;
// }
// if (type < gateTypeMin || type > gateTypeMax)
// {
// error_code = -1;
// return error_code;
// }
// error_code = DAQ.daqGet(ascanNum, ascanPort, attr, ref val);
// if (error_code != (int)PDAQ_ERR.GOOD)
// {
// MessageShow.show("Error:Get the Gate alarm signal length failed!", "错误:获取Gate alarm signal length失败!");
// }
// return error_code;
//}
public static int AlarmActiveLevel(uint ascanNum, uint ascanPort, GateType type, ref GateAlarmLevel level)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].AlarmActiveLevel;
uint val = 0;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqGet(ascanNum, ascanPort, attr, ref val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Get alarm active level failed!", "错误:获取Alarm active level失败!");
}
level = (GateAlarmLevel)val;
return(error_code);
}
private void tolMonitorAccordToGate(GateType gateType, int tolMonitorIndex)
{
int error_code;
double delay = 0;
double width = 0;
double tolMonitorMax;
double tolMonitorMin;
error_code = GetGateDAQ.Delay(SelectAscan.sessionIndex, SelectAscan.port, gateType, ref delay);
if (error_code != 0)
{
return;
}
error_code = GetGateDAQ.Width(SelectAscan.sessionIndex, SelectAscan.port, gateType, ref width);
if (error_code != 0)
{
return;
}
tolMonitorMin = delay;
tolMonitorMax = delay + width;
((NumericUpDown)(Controls.Find("numUpDownMax" + tolMonitorIndex, true)[0])).Text = tolMonitorMax.ToString();
((NumericUpDown)(Controls.Find("numUpDownMin" + tolMonitorIndex, true)[0])).Text = tolMonitorMin.ToString();
}
/// <summary>
/// Creates a Gate.
/// </summary>
/// <param name="fileName"></param>
public Gate(Program owner, Vector3 position, Vector3 orientation, int sequenceNr, int type)
{
this.owner = owner;
this.Position = position;
this.Orientation = orientation;
this.sequenceNr = sequenceNr;
this.gateType = (GateType)type;
this.Scale = new Vector3(2, 2, 2);
LoadMesh("gate1.x");
x1 = position.X + gateSize * (float)Math.Cos((double)orientation.Y);
y1 = position.Z - gateSize * (float)Math.Sin((double)orientation.Y);
x2 = position.X - gateSize * (float)Math.Cos((double)orientation.Y);
y2 = position.Z + gateSize * (float)Math.Sin((double)orientation.Y);
lineMesh1.Vertex1 = new Vector3(x1, position.Y, y1);
lineMesh1.Vertex2 = new Vector3(x1, position.Y + gateHeight, y1);
lineMesh2.Vertex1 = new Vector3(x2, position.Y, y2);
lineMesh2.Vertex2 = new Vector3(x2, position.Y + gateHeight, y2);
/*
* lineMesh1.Vertex1 = this.Position + new Vector3(3.0f * (float)Math.Cos((double)orientation.Y), 0, -3.0f * (float)Math.Sin((double)orientation.Y));
* lineMesh1.Vertex2 = this.Position + new Vector3(3.0f * (float)Math.Cos((double)orientation.Y), 10, -3.0f * (float)Math.Sin((double)orientation.Y));
* lineMesh2.Vertex1 = this.Position + new Vector3(-3.0f * (float)Math.Cos((double)orientation.Y), 0, 3.0f * (float)Math.Sin((double)orientation.Y));
* lineMesh2.Vertex2 = this.Position + new Vector3(-3.0f * (float)Math.Cos((double)orientation.Y), 10, 3.0f * (float)Math.Sin((double)orientation.Y));
*/
}
public static int DtsStart(uint ascanNum, uint ascanPort, GateType type, ref double start)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].DtsStart;
double val = 0;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqGet(ascanNum, ascanPort, attr, ref val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Get the dts Start failed!", "错误:获取BTS start失败!");
}
start = val;
return(error_code);
}
public static int ScCounter(uint ascanNum, uint ascanPort, GateType type, ref uint cnt)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].ScCounter;
uint val = 0;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqGet(ascanNum, ascanPort, attr, ref val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Get Suppress Counter failed!", "错误:获取Suppress Counter失败!");
}
cnt = val;
return(error_code);
}
public static int DnsActive(uint ascanNum, uint ascanPort, GateType type, ref DNSActive active)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].DnsActive;
uint val = 0;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqGet(ascanNum, ascanPort, attr, ref val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Get Dns Active failed!", "错误:获取Dns Active失败!");
}
active = (DNSActive)val;
return(error_code);
}
/**get dynamic threld suppression (dts) active*/
public static int DtsActive(uint ascanNum, GateType type, DTSActive active)
{
int error_code;
int gateNum = (int)type;
uint attr = DaqAttrType.gate[gateNum].DtsActive;
uint val = (uint)active;
if (ascanNum < ascanNumMin || ascanNum > ascanNumMax)
{
error_code = -1;
return(error_code);
}
if (type < gateTypeMin || type > gateTypeMax)
{
error_code = -1;
return(error_code);
}
error_code = DAQ.daqSet(ascanNum, attr, val);
if (error_code != (int)PDAQ_ERR.GOOD)
{
MessageShow.show("Error:Set Dts Active failed!", "错误:设置Dts Active失败!");
}
return(error_code);
}
protected Gate(CellCoordinates[] _coordinates, CellCoordinates[] _inputs, CellCoordinates[] _outputs, GateType _type) : base(GridObjectType.Gate, _coordinates)
{
CurrentValues = new int[_outputs.Length];
Inputs = _inputs;
Outputs = _outputs;
Type = _type;
}
public Gate(GateType type, Zp quorumIndex, Common.FiniteField.Circuits.Circuit mpcCircuit)
{
Debug.Assert(type == GateType.Input || mpcCircuit != null, "Only input gates do not have MPC circuit.");
Id = idGen++;
Type = type;
QuorumIndex = quorumIndex.Value;
MpcCircuit = mpcCircuit;
}
private void cmsItem_C_tof_Click(object sender, EventArgs e)
{
selectedGate = GateType.C; //C
gateDataType = DataType.Tof; //tof
tChartAscan.Header.Text = "Gate C — Tof — velocity:" + velocity + "mm/us";
CalTchartY_S(selectedGate);
ResetTchart();
}
private static Guid GateGuid(GateType gateType, int inputCount, bool invertedOutput)
{
Tracer.Assert(gateType != GateType.Nop && GateSet.IsValid(gateType, inputCount) && (!invertedOutput || GateSet.HasOutput(gateType)));
return(new Guid(0, 0, 0, 0, 0, 0, 0, 0,
(byte)(int)gateType,
(byte)inputCount,
(byte)(invertedOutput ? 1 : 0)
));
}
protected override void OnTriggerEnter2D(Collider2D collider)
{
base.OnTriggerEnter2D(collider);
switch (collider.tag)
{
case "Exit Gate": _gateCenter = collider.transform.position; _activeGateType = GateType.Exit; break;
case "Warp Gate": _gateCenter = collider.transform.position; _activeGateType = GateType.Warp; break;
}
}
/// <summary>
/// Composes two gates given the operator as a parameter.
/// </summary>
/// <param name="a"></param>
/// <param name="b"></param>
/// <returns>The resulting gate.</returns>
public static IGate Compose(GateType type, IGate a, IGate b)
{
switch(type)
{
case GateType.OR:
return ComposeOR(a, b);
case GateType.AND:
return ComposeAND(a, b);
default:
throw new ArgumentException();
}
}
public override void EmitBinaryOperator(GateType type)
{
switch (type)
{
case GateType.AND:
Writer.Append(" AND ");
break;
case GateType.OR:
Writer.Append(" OR ");
break;
default:
throw new InvalidOperationException();
}
}
public override void EmitBinaryOperator(GateType type)
{
switch (type)
{
case GateType.AND:
Writer.Append(" && ");
break;
case GateType.OR:
Writer.Append(" || ");
break;
default:
throw new Exception("unsupported gate type.");
}
}
public void EnterGate(GateType gateBeingEntered, Vector2 gateCenter)
{
if ((gateBeingEntered == GateType.Exit) && (CurrentGame.GameData.GemsCollected < CurrentGame.GameData.GemsRequired))
{
if (!_notEnoughGemsPopup.activeInHierarchy)
{
_notEnoughGemsPopup.SetActive(true);
}
}
else
{
_gateBeingEntered = gateBeingEntered;
_gateCenter = gateCenter;
CurrentGame.GameData.TimerIsFrozen = true;
SwitchToSequencedAvatar();
_sequencedAvatarController.SequenceCompleteHandler = CompleteGateEntrySequence;
_sequencedAvatarAnimator.SetInteger("DeathSequence", 0);
_sequencedAvatarAnimator.SetBool("ExitingGate", false);
_sequencedAvatarAnimator.SetBool("EnteringGate", true);
}
}
public override void ValueChanged(object sender, object value)
{
if (sender.ToString() == "System.Int32 PowerOutput")
{
PowerOutput = int.Parse(value.ToString());
if (GateOpen)
{
foreach (GameObject obj in Outputs)
{
obj.GetComponent<PowerLineScript>().SetPower(PowerOutput,gameObject,dotTile.GetComponent<DotTileScript>().PowerSourceObj);
}
}
}
print(sender.ToString());
if (sender.ToString() == "LogicGate+GateType gateType")
{
switch (int.Parse(value.ToString()))
{
case 0: gateType = GateType.AND;
break;
case 1: gateType = GateType.OR;
break;
case 2: gateType = GateType.XOR;
break;
case 3: gateType = GateType.NOT;
break;
case 4: gateType = GateType.NAND;
break;
case 5: gateType = GateType.NOR;
break;
case 6: gateType = GateType.XNOR;
break;
default:
break;
}
}
}
public void LoadGateSetting(int id)
{
MySqlConnection conn = new MySqlConnection(connectionString);
MySqlCommand cmd = new MySqlCommand(
"select id, gate_class, gate_type, gate_code, gate_name, image_dir from gates where id=" + id,
conn);
conn.Open();
MySqlDataReader reader = cmd.ExecuteReader();
while (reader.Read())
{
gateId = reader.GetInt64("id");
int gtClass = reader.GetInt32("gate_class");
switch (gtClass)
{
case 1:
gateClass = GateClass.car;
break;
case 2:
gateClass = GateClass.motor;
break;
}
int type = reader.GetInt32("gate_type");
switch (type)
{
case 1:
gateType = GateType.gatein;
break;
case 2:
gateType = GateType.gateout;
break;
}
gateCode = reader.GetString("gate_code");
gateName = reader.GetString("gate_name");
}
reader.Close();
// get tarif based on gate class
string sql = "select id, name, initial_price, extended_price, extended_after from tarifs where id = ";
switch (gateClass)
{
case GateClass.car:
sql += currentCarTarifId.ToString();
break;
case GateClass.motor:
sql += currentMotorTarifId.ToString();
break;
}
cmd.CommandType = System.Data.CommandType.Text;
cmd.CommandText = sql;
if (conn.State != System.Data.ConnectionState.Open)
conn.Open();
reader = cmd.ExecuteReader();
while (reader.Read())
{
tarifId = reader.GetInt32("id");
tarifName = reader.GetString("name");
tarifInitial = reader.GetInt64("initial_price");
tarifExtended = reader.GetInt64("extended_price");
tarifExtendedHour = reader.GetInt32("extended_after");
}
reader.Close();
conn.Close();
}
internal void EmitBinaryOperator(GateType type)
{
switch(type)
{
case GateType.AND:
Append(" && ");
break;
case GateType.OR:
Append(" || ");
break;
default:
throw new Exception("unsupported gate type.");
}
}
private void OnTriggerExit2D(Collider2D collider)
{
if (collider.tag == "Exit Gate")
{
_gateCenterX = 0.0f;
_activeGateType = GateType.None;
}
}
private void OnTriggerEnter2D(Collider2D collider)
{
if (collider.tag == "Exit Gate")
{
_gateCenterX = collider.transform.position.x;
_activeGateType = GateType.Exit;
}
}
private void Reset()
{
_facingRight = (_transform.localScale.x > 0.0f);
_verticalMovementState = VerticalMovementState.OnGround;
_lockMovement = false;
_isMoving = false;
_activeGateType = GateType.None;
_gateCenterX = 0.0f;
_enteringGate = false;
_activeTool = null;
}
public static IGate Compose(GateType type, IEnumerable<IGate> gates)
{
switch (type)
{
case GateType.OR:
return ComposeOR(gates);
case GateType.AND:
return ComposeAND(gates);
default:
throw new ArgumentException();
}
}
public abstract void EmitBinaryOperator(GateType type);
private void OnTriggerExit2D(Collider2D collider)
{
if ((collider.tag == "Exit Gate") || (collider.tag == "Warp Gate"))
{
_gateCenter = Vector2.zero;
_activeGateType = GateType.None;
}
}
protected override void Reset()
{
base.Reset();
_activeGateType = GateType.None;
_gateCenter = Vector2.zero;
_enteringGate = false;
}