/// <summary>
/// Returns a user-friendly name for an accelerator type.
/// </summary>
/// <param name="profileType">The profile to return a name for.</param>
/// <returns>A user friendly name.</returns>
/// <remarks>
/// Adapted from https://codereview.stackexchange.com/questions/157871/method-that-returns-description-attribute-of-enum-value.</remarks>
public static string ToFriendlyName(this ProfileType profileType)
{
return
(profileType
.GetType()
.GetMember(profileType.ToString())
.FirstOrDefault()
?.GetCustomAttribute <DescriptionAttribute>()
?.Description
?? profileType.ToString());
}
public void SetOptions(Contracts.Options options)
{
_networkSettingsViewModel.SetOptions(options);
_serverSettingsViewModel.SetOptions(options);
Name = _profileType.ToString();
Id = options.Id;
}
public void OnServiceConnected(ProfileType profile, IBluetoothProfile proxy)
{
string msg = "Profile Type : {0}".FormatWith(profile.ToString());
System.Diagnostics.Debug.WriteLine(msg);
foreach (BluetoothDevice item in proxy.ConnectedDevices)
{
msg = "Connected Device Name:{0}".FormatWith(item.Name);
System.Diagnostics.Debug.WriteLine(msg);
var args = new Util.XamariN.BLuetoothEventArgs(new BluetoothDeviceInfo(item.Name, item.Address, (int)item.Type, (int)item.BondState)
{
IsConnected = true
});
Util.XamariN.BluetoothEvents.OnUpdateInfo(args);
}
}
public string GetProfileElements(ProfileType profieType, string productId)
{
return(this.tryAction(
createRequest: () => this.getNewRequest("/Companies/UralsibLife/RightDecision/Resources/api.vlib", Method.POST)
.AddJsonBody(new RpcInput <string[]>()
{
tid = 22,
action = "Profile",
method = "LoadValue",
type = "rpc",
data = new string[]
{
profieType.ToString(),
productId
}
}),
createResponse: request => this.execute(request),
createResult: response => this.GetRpcDataResult <Dictionary <string, string> >(response)).Values.Single());
}
public override void OnSingleClick(Mobile from)
{
LabelTo(from, "UOACZ Destination: " + m_GateDirection.ToString());
LabelTo(from, "(" + m_ProfileTypeAllowed.ToString() + ")");
}
protected override void Calculate()
{
TotalSlabDepth = GetTotalGepth();
#region Read table data
var SampleValue = new
{
DepthType = "",
TotalDepth = "",
ProfileType = "",
NwWeight = "",
LwWeight = ""
}; // sample
var ComponentWeightList = ListFactory.MakeList(SampleValue);
using (StringReader reader = new StringReader(Resources.DeadLoadDeckWithConcrete))
{
string line;
while ((line = reader.ReadLine()) != null)
{
string[] Vals = line.Split(',');
if (Vals.Count() == 5)
{
string DepthType = (string)Vals[0];
string TotalDepth = (string)Vals[1];
string ProfileType = (string)Vals[2];
string NwWeight = (string)Vals[3];
string LwWeight = (string)Vals[4];
ComponentWeightList.Add(new
{
DepthType = DepthType,
TotalDepth = TotalDepth,
ProfileType = ProfileType,
NwWeight = NwWeight,
LwWeight = LwWeight
});
}
}
}
#endregion
double q_deckAndConcrete = 0.0;
var DataValues = from weightEntry in ComponentWeightList
where
(weightEntry.DepthType == DepthType.ToString() &&
weightEntry.TotalDepth == TotalSlabDepth.ToString() &&
weightEntry.ProfileType == ProfileType.ToString())
select weightEntry;
var ResultList = (DataValues.ToList());
double LoadVal;
string WeightString = null;
try
{
if (ResultList.FirstOrDefault() != null)
{
switch (WeightType)
{
case ConcreteWeightType.LightWeight:
if (Double.TryParse(ResultList.FirstOrDefault().LwWeight, out LoadVal))
{
q_deckAndConcrete = LoadVal;
}
WeightString = "light weight";
break;
case ConcreteWeightType.NormalWeight:
if (Double.TryParse(ResultList.FirstOrDefault().NwWeight, out LoadVal))
{
q_deckAndConcrete = LoadVal;
}
WeightString = "normal weight";
break;
default:
WeightString = "normal weight";
break;
}
}
}
catch
{
}
//define strings for the report
string ProfileString = null;
switch (ProfileType)
{
case DeckProfileType.p1_5x6:
ProfileString = "1 1/2 x 6 in";
break;
case DeckProfileType.p1_5x6INV:
ProfileString = "1 1/2 x 6 in. (inverted)";
break;
case DeckProfileType.p2x12:
ProfileString = "2 x 12 in.";
break;
case DeckProfileType.p3x12:
ProfileString = "3 x 12 in.";
break;
default:
break;
}
string DeckDepthString = null;
switch (DepthType)
{
case DeckDepthType.d1_5:
DeckDepthString = "1 1/2";
break;
case DeckDepthType.d2:
DeckDepthString = "2";
break;
case DeckDepthType.d3:
DeckDepthString = "3";
break;
default:
DeckDepthString = "3";
break;
}
base.Weight = q_deckAndConcrete;
base.Notes = string.Format
("{0} deep composite deck (having {1} profile) with {2} concrete fill. Total slab thickness ={3}",
DeckDepthString, ProfileString, WeightString, TotalSlabDepth.ToString());
}
public int InterpretEncoderTicksAt(DateTime startTime, DateTime evaluationTime)
{
double timeElapsed = (evaluationTime - startTime).TotalSeconds;
if (timeElapsed < 0)
{
throw new ArgumentException("Evaluation time was before the start time.");
}
bool isNegative = ObjectiveStep < InitialStep;
switch (ProfileType)
{
case SimulationMCUTrajectoryProfileTypeEnum.NEGLIGIBLE:
{
return(ObjectiveStep);
}
case SimulationMCUTrajectoryProfileTypeEnum.LINEAR_FULL:
{
double cumulativePosition = InitialStep;
if (timeElapsed < TimeForAcceleration)
{
return((int)(cumulativePosition + GetTickTranslation(0, TrajectoryPeakAcceleration, 0, timeElapsed, isNegative)));
}
cumulativePosition += GetTickTranslation(0, TrajectoryPeakAcceleration, 0, TimeForAcceleration, isNegative);
double cumulativeVelocity = GetTickVelocityChange(0, TrajectoryPeakAcceleration, TimeForAcceleration);
if (timeElapsed < (TotalTime - TimeForAcceleration))
{
return((int)(cumulativePosition + GetTickTranslation(0, 0, cumulativeVelocity, timeElapsed - TimeForAcceleration, isNegative)));
}
cumulativePosition += GetTickTranslation(0, 0, cumulativeVelocity, TotalTime - (2 * TimeForAcceleration), isNegative);
// cumulativeVelocity += GetTickVelocityChange(0, 0, TimeForAcceleration); --> This value is obviously 0, but I'm leaving it here to clarify I didn't forget it!
if (timeElapsed < TotalTime)
{
return((int)(cumulativePosition + GetTickTranslation(0, -TrajectoryPeakAcceleration, cumulativeVelocity, timeElapsed - TotalTime + TimeForAcceleration, isNegative)));
}
return(ObjectiveStep);
}
case SimulationMCUTrajectoryProfileTypeEnum.LINEAR_PARTIAL:
{
double cumulativePosition = InitialStep;
if (timeElapsed < TimeForAcceleration)
{
return((int)(cumulativePosition + GetTickTranslation(0, TrajectoryPeakAcceleration, 0, timeElapsed, isNegative)));
}
cumulativePosition += GetTickTranslation(0, TrajectoryPeakAcceleration, 0, TimeForAcceleration, isNegative);
double cumulativeVelocity = GetTickVelocityChange(0, TrajectoryPeakAcceleration, TimeForAcceleration);
if (timeElapsed < TotalTime)
{
return((int)(cumulativePosition + GetTickTranslation(0, -TrajectoryPeakAcceleration, cumulativeVelocity, timeElapsed - TimeForAcceleration, isNegative)));
}
return(ObjectiveStep);
}
case SimulationMCUTrajectoryProfileTypeEnum.S_CURVE_TRAPEZOIDAL:
{
double cumulativePosition = InitialStep;
double t1 = TrajectoryPeakAcceleration / TrajectoryJerk;
if (timeElapsed < t1)
{
return((int)(cumulativePosition + GetTickTranslation(TrajectoryJerk, 0, 0, timeElapsed, isNegative)));
}
cumulativePosition += GetTickTranslation(TrajectoryJerk, 0, 0, t1, isNegative);
double cumulativeVelocity = GetTickVelocityChange(TrajectoryJerk, 0, t1);
double t2 = ((TrajectoryPeakVelocity - (2 * cumulativeVelocity)) / TrajectoryPeakAcceleration) + t1;
if (timeElapsed < t2)
{
return((int)(cumulativePosition + GetTickTranslation(0, TrajectoryPeakAcceleration, cumulativeVelocity, timeElapsed - t1, isNegative)));
}
cumulativePosition += GetTickTranslation(0, TrajectoryPeakAcceleration, cumulativeVelocity, t2 - t1, isNegative);
cumulativeVelocity += GetTickVelocityChange(0, TrajectoryPeakAcceleration, t2 - t1);
double t3 = t2 + t1;
if (timeElapsed < t3)
{
return((int)(cumulativePosition + GetTickTranslation(-TrajectoryJerk, TrajectoryPeakAcceleration, cumulativeVelocity, timeElapsed - t1, isNegative)));
}
cumulativePosition += GetTickTranslation(-TrajectoryJerk, TrajectoryPeakAcceleration, cumulativeVelocity, timeElapsed - t2, isNegative);
cumulativeVelocity += GetTickVelocityChange(-TrajectoryJerk, TrajectoryPeakAcceleration, timeElapsed - t2);
double t4 = TotalTime - (2 * t3);
if (timeElapsed < t4)
{
return((int)(cumulativePosition + GetTickTranslation(0, 0, cumulativeVelocity, timeElapsed - t3, isNegative)));
}
cumulativePosition += GetTickTranslation(0, 0, cumulativeVelocity, t4 - t3, isNegative);
cumulativeVelocity += GetTickVelocityChange(0, 0, t4 - t3);
double t5 = t4 + t1;
if (timeElapsed < t5)
{
return((int)(cumulativePosition + GetTickTranslation(-TrajectoryJerk, 0, cumulativeVelocity, timeElapsed - t4, isNegative)));
}
cumulativePosition += GetTickTranslation(-TrajectoryJerk, 0, cumulativeVelocity, t5 - t4, isNegative);
cumulativeVelocity += GetTickVelocityChange(-TrajectoryJerk, 0, t5 - t4);
double t6 = t4 + t2;
if (timeElapsed < t6)
{
return((int)(cumulativePosition + GetTickTranslation(0, -TrajectoryPeakAcceleration, cumulativeVelocity, timeElapsed - t5, isNegative)));
}
cumulativePosition += GetTickTranslation(0, -TrajectoryPeakAcceleration, cumulativeVelocity, t6 - t5, isNegative);
cumulativeVelocity += GetTickVelocityChange(0, -TrajectoryPeakAcceleration, t6 - t5);
if (timeElapsed < TotalTime)
{
return((int)(cumulativePosition + GetTickTranslation(TrajectoryJerk, -TrajectoryPeakAcceleration, cumulativeVelocity, timeElapsed - t6, isNegative)));
}
return(ObjectiveStep);
}
case SimulationMCUTrajectoryProfileTypeEnum.S_CURVE_TRIANGULAR_FULL:
case SimulationMCUTrajectoryProfileTypeEnum.S_CURVE_TRIANGULAR_PARTIAL:
{
double t1 = TotalTime / 4;
if (timeElapsed < t1)
{
return((int)(GetTickTranslation(TrajectoryJerk, 0, 0, timeElapsed, isNegative)));
}
double cumulativeDisplacement = GetTickTranslation(TrajectoryJerk, 0, 0, t1, isNegative);
double cumulativeVelocity = GetTickVelocityChange(TrajectoryJerk, 0, t1);
double t2 = t1;
double t3 = 2 * t1;
if (timeElapsed < t3)
{
return((int)(cumulativeDisplacement + GetTickTranslation(-TrajectoryJerk, TrajectoryPeakAcceleration, cumulativeVelocity, timeElapsed - t1, isNegative)));
}
cumulativeDisplacement += GetTickTranslation(-TrajectoryJerk, TrajectoryPeakAcceleration, cumulativeVelocity, timeElapsed - t2, isNegative);
cumulativeVelocity += GetTickVelocityChange(-TrajectoryJerk, TrajectoryPeakAcceleration, timeElapsed - t2);
double t4 = t3;
double t5 = 3 * t1;
if (timeElapsed < t5)
{
return((int)(cumulativeDisplacement + GetTickTranslation(-TrajectoryJerk, 0, cumulativeVelocity, timeElapsed - t4, isNegative)));
}
cumulativeDisplacement += GetTickTranslation(-TrajectoryJerk, 0, cumulativeVelocity, t5 - t4, isNegative);
cumulativeVelocity += GetTickVelocityChange(-TrajectoryJerk, 0, t5 - t4);
double t6 = t5;
if (timeElapsed < TotalTime)
{
return((int)(cumulativeDisplacement + GetTickTranslation(TrajectoryJerk, -TrajectoryPeakAcceleration, cumulativeVelocity, timeElapsed - t6, isNegative)));
}
return(ObjectiveStep);
}
default:
{
throw new InvalidOperationException("This profile is of an unrecognized type: " + ProfileType.ToString());
}
}
}
public override void WriteXml(XmlWriter writer)
{
writer.WriteAttributeString("Path", Path);
writer.WriteAttributeString("ProfileType", ProfileType.ToString());
}
public void SetProfileType(ProfileType type)
{
if (Application.platform != RuntimePlatform.OSXEditor && Application.platform != RuntimePlatform.WindowsEditor)
{
#if UNITY_ANDROID
if (mProfile != null)
{
AndroidJavaClass enumClass = new AndroidJavaClass("com.tendcloud.tenddata.TDGAProfile$ProfileType");
AndroidJavaObject obj = enumClass.CallStatic <AndroidJavaObject>("valueOf", type.ToString());
mProfile.Call("setProfileType", obj);
enumClass.Dispose();
}
#endif
#if UNITY_IPHONE
TDGASetProfileType((int)type);
#endif
}
}
