/// <summary>
/// Загружает пресет из Txt-файла.
/// </summary>
/// <param name = "fileName">
/// Путь к файлу.
/// </param>
/// <param name = "oscillators">
/// Неинициализированный массив осцилляторов для загрузки в него пресета.
/// </param>
/// <exception cref = "PresetException"></exception>
public void LoadPreset(String fileName, out Oscillator[] oscillators)
{
try
{
oscillators = null;
using (StreamReader reader = new StreamReader(fileName))
{
String first = reader.ReadToEnd().Trim('\n', '\r', ' ');
String[] second = first.Split(new Char[] { '\n' }, StringSplitOptions.RemoveEmptyEntries);
oscillators = new Oscillator[second.Length];
for (Int32 i = 0; i < second.Length; i++)
{
second[i].Trim('\n', '\r', ' ');
String[] third = second[i].Split(new Char[] { ' ' }, StringSplitOptions.None);
oscillators[i] = new Oscillator
(
Convert.ToBoolean(third[0]),
Convert.ToInt32(third[1]),
Convert.ToInt32(third[2]),
Convert.ToInt32(third[3]),
(Waveshape)Convert.ToInt32(third[4])
);
}
}
}
catch
{
throw new PresetException("Ошибка при загрузке пресета из Txt-файла.");
}
}
// Use this for initialization
void Start()
{
var gen = new Oscillator();
float[] intervals = _Scales [ScaleIndex % _Scales.Length];
Index = Random.Range(0, intervals.Length);
float interval = intervals [Index % intervals.Length];
float octave = (float)Index / (float)intervals.Length;
Note = BaseNote + octave * 12 + interval;
gen.SetNote(Note);
_generator = gen;
_samples = new float[_generator.SamplesCount()];
for (int i = 0; i < _samples.Length; ++i)
{
_samples [i] = _generator.Sample();
}
_source = GetComponent <AudioSource> ();
_source.loop = true;
_source.spatialBlend = 1;
_source.clip = AudioClip.Create("", _samples.Length, 1, AudioSettings.outputSampleRate, false);
_source.clip.SetData(_samples, 0);
_source.Play();
_baseBehaviour = GetComponent <ElementBehaviour> ();
}
// Use this for initialization
void Start()
{
_grabber = new GstUnityAudioGrabber();
_grabber2 = new GstCustomAudioGrabber();
_grabber2.Init("filesrc location=\"" + AudioFile + "\" ! decodebin3 ! audioconvert ! audioresample", Channels, SampleRate);
_osc = new Oscillator();
_osc.SetNote(70);
_grabber.Init(_osc.SamplesCount() * 10, 1, AudioSettings.outputSampleRate);
float[] data = new float[_grabber.BufferLength];
for (int i = 0; i < data.Length; ++i)
{
data [i] = _osc.Sample();
}
_data = data;
_streamer = new GstAppNetAudioStreamer();
_streamer.AttachGrabber(_grabber2);
_grabber2.Start();
_streamer.SetIP("127.0.0.1", 5001);
_streamer.CreateStream();
_streamer.Stream();
}
// Use this for initialization
private void Start()
{
// Get SpriteRenderer component
_spriteRenderer = GetComponent <SpriteRenderer>();
// Get ParticleSystem component
//_particleSystem = GetComponent<ParticleSystem>();
// Get CircleCollider2D component
_circleCollider2D = GetComponent <CircleCollider2D>();
// Get AudioSource component
_audioSource = GetComponent <AudioSource>();
// Instantiate Stopwatch
_stopwatch = new System.Diagnostics.Stopwatch();
// Oscillator
// Calculate total movement length
_movementSemiLength = Mathf.Abs(_upLimit.localPosition.y - _downLimit.localPosition.y) / 2.0f;
// Calculate initial oscillator angle
float l_oscillatorAngle_0 = Mathf.Acos(_initialPosition.localPosition.y / _movementSemiLength) * Mathf.Rad2Deg;
// If initial platform movement is to the right, recalculate initial oscillator angle
if (_reverseInitialDirection)
{
l_oscillatorAngle_0 = 360.0f - l_oscillatorAngle_0;
}
// Instantiate new Oscillator object
_oscillator = new Oscillator(l_oscillatorAngle_0, _frequency, new CosSqrtbOscillatorFunction(l_oscillatorAngle_0, _frequency, _bMovementParam));
// Translate gem to the initial position
transform.Translate(_initialPosition.localPosition.x, 0.0f, 0.0f, Space.Self);
// Assing initial gem position 0
_gemPosition_0 = _initialPosition.localPosition.x;
}
public void Configure(float sampleRate, int bufferSize)
{
//Complain if too low
if (sampleRate < BAUD_RATE)
{
throw new Exception($"The sample rate specified, {sampleRate}, is too low to be useful. Must be >= {BAUD_RATE}.");
}
//Create parts
fmDemod = new FmBasebandDemodulator();
fmDemod.Configure(bufferSize, sampleRate);
amDemod = new AmBasebandDemodulator();
osc = new Oscillator(sampleRate, -2400);
symbolsPerSample = BAUD_RATE / sampleRate;
//Make filter
var filterBuilder = new LowPassFilterBuilder(sampleRate, 2080)
.SetAutomaticTapCount(200)
.SetWindow();
filter = RealFirFilter.CreateFirFilter(filterBuilder);
//Create buffer
buffer?.Dispose();
buffer = UnsafeBuffer.Create(bufferSize, out bufferPtr);
}
public void setupChain()
{
switch (WaveForm)
{
case waveType.Saw:
osc = new Sawtooth();
break;
case waveType.Sine:
osc = new Sine();
break;
case waveType.Square:
osc = new Square();
break;
case waveType.Tri:
osc = new Triangle();
break;
}
osc.setGain(gain);
if (mod != null)
{
mod.setupChain();
}
}
Oscillator oscillator; //oscillator graphical representation and logic
// Use this for initialization
void Start()
{
launcher = GetComponent <Launcher>();
oscillator = GetComponent <Oscillator>();
direction = 0;
state = launcher.GetState();
}
public void Start_Oscillates_Correct_Number_Of_Times()
{
// arrange
int nExpected = 42;
var oscillator = new Oscillator(String.Empty, (uint)nExpected);
oscillator.V.V = VoltageSignal.HIGH;
int nHighs = 0, nLows = 0;
oscillator.Output.Changed += (cp) => {
if (cp.V == VoltageSignal.HIGH)
{
nHighs++;
}
if (cp.V == VoltageSignal.LOW)
{
nLows++;
}
};
// act
oscillator.Start();
// assert
Assert.AreEqual(nExpected, nHighs, "# times oscillator output should have gone high");
Assert.AreEqual(nExpected, nLows, "# times oscillator output should have gone low");
}
/// <summary>
/// Called on each bar update event (incoming tick)
/// </summary>
protected override void OnBarUpdate()
{
if (CurrentBar < 1)
{
OscillatorLine.Set(0);
SignalLine.Set(0);
Oscillator.Set(0);
return;
}
oscillatorValue = fastSMA[0] - slowSMA[0];
if (ShowLines)
{
OscillatorLine.Set(oscillatorValue);
SignalLine.Set(SMA(OscillatorLine, Smooth)[0]);
}
else
{
OscillatorLine.Reset();
SignalLine.Reset();
}
Oscillator.Set(oscillatorValue);
if (Rising(Oscillator))
{
PlotColors[0][0] = UpColor;
PlotColors[2][0] = UpColor;
}
else
{
PlotColors[0][0] = DownColor;
PlotColors[2][0] = DownColor;
}
}
public void Start_Does_Nothing_When_Oscillator_Off()
{
// arrange
var oscillator = new Oscillator(String.Empty);
int nHighs = 0, nLows = 0;
oscillator.Output.Changed += (cp) => {
if (cp.V == VoltageSignal.HIGH)
{
nHighs++;
}
if (cp.V == VoltageSignal.LOW)
{
nLows++;
}
};
// act
oscillator.Start();
// assert
Assert.AreEqual(0, nHighs, "oscillator output should have never gone high");
Assert.AreEqual(0, nLows, "oscillator output should have never gone low");
}
public void Start_Goes_High_Low_When_Oscillator_On()
{
// arrange
var oscillator = new Oscillator(String.Empty, 1); // one cycle
oscillator.V.V = VoltageSignal.HIGH;
int nHighs = 0, nLows = 0;
oscillator.Output.Changed += (cp) => {
if (cp.V == VoltageSignal.HIGH)
{
nHighs++;
}
if (cp.V == VoltageSignal.LOW)
{
nLows++;
}
};
// act
oscillator.Start();
// assert
Assert.AreEqual(1, nHighs, "oscillator output should have gone high");
Assert.AreEqual(1, nLows, "oscillator output should have gone low");
}
public JointRotations GetRotations()
{
GetKneeJointPhaseOffset(left, right, ref tPhaseOffset);
GetShoulderJointAmp(left, right, ref tAmp);
float dt = Time.deltaTime;
osc.UpdateKuramoto(dt);
// legs stops moving if the shoulder does
float a = 1 - Mathf.Exp(-4 * Mathf.Clamp01(Mathf.Max(Mathf.Abs(left), Mathf.Abs(right))));
for (int i = 0; i < N_LEGS; ++i)
{
// Critically damped second order differential equation
// http://mathproofs.blogspot.ca/2013/07/critically-damped-spring-smoothing.html
float ddPhaseOffset = smoothing * ((smoothing / 4.0f) * (tPhaseOffset[i] - phaseOffset[i]) - dPhaseOffset[i]); // 2nd derivative
dPhaseOffset[i] = dPhaseOffset[i] + dt * ddPhaseOffset; // 1st derivative
phaseOffset[i] = phaseOffset[i] + dt * dPhaseOffset[i];
float ddAmp = smoothing * ((smoothing / 4.0f) * (tAmp[i] - amp[i]) - dAmp[i]); // 2nd derivative
dAmp[i] = dAmp[i] + dt * ddAmp; // 1st derivative
amp[i] = amp[i] + dt * dAmp[i];
float osc = Mathf.Sin(this.osc.phase[i] + PHASE_OFFSET[i]);
jr.y[i] = (1.0f / (1.0f + Mathf.Exp(-sig * osc)) - .5f) * 2.0f * amp[i];
osc = Mathf.Sin(this.osc.phase[i] * 1.0f + phaseOffset[i] * Mathf.PI / 2.0f);
jr.z[i] = (1.0f / (1.0f + Mathf.Exp(-sig * osc)) - .5f) * 2.0f * a;
}
return(jr);
}
///<summary>
/// Variable Moving Average
///</summary>
///<param name="pNav">Navigator</param>
///<param name="pSource">Field Source</param>
///<param name="periods">Periods</param>
///<param name="Alias">Alias</param>
///<returns>Recordset</returns>
public Recordset VariableMovingAverage(Navigator pNav, Field pSource, int periods, string Alias)
{
Oscillator OS = new Oscillator();
int Record;
int RecordCount = pNav.RecordCount;
Field Field1 = new Field(RecordCount, Alias);
//CMO must be overwritten
Recordset Results = OS.ChandeMomentumOscillator(pNav, pSource, 9, "CMO");
const int Start = 2;
pNav.Position = Start;
for (Record = Start; Record < RecordCount + 1; Record++)
{
pNav.MovePrevious();
double PrevVMA = Field1.ValueEx(pNav.Position);
pNav.MoveNext();
double CMO = Results.ValueEx("CMO", pNav.Position) / 100;
double Price = pSource.ValueEx(pNav.Position);
if (CMO < 0)
{
CMO = -1 * CMO;
}
double VMA = (CMO * Price) + (1 - CMO) * PrevVMA;
Field1.Value(pNav.Position, VMA);
pNav.MoveNext();
}//Record
pNav.MoveFirst();
Results.AddField(Field1);
return(Results);
}
void Start()
{
myOsc = GetComponent <Oscillator>();
mySynthControl = GetComponent <SynthControl>();
//RightControllerParticleSystem = GameObject.Find("RightControllerParticleSystem");
particles = RightControllerParticleSystem.GetComponent <ParticleSystem>();
}
async void MainPage_Loaded(object sender, RoutedEventArgs e)
{
this.systemControls = SystemMediaTransportControls.GetForCurrentView();
this.systemControls.ButtonPressed += systemControls_ButtonPressed;
this.systemControls.IsPlayEnabled = true;
this.systemControls.IsPauseEnabled = true;
this.renderer = await AudioRenderer.CreateAsync();
var rootPath = Windows.ApplicationModel.Package.Current.InstalledLocation.Path + "\\Sounds\\";
this.drumPad = new DrumPad();
this.drumPad.SetDrumSound(DrumKind.Bass, rootPath + "Drum-Bass.wav");
this.drumPad.SetDrumSound(DrumKind.Snare, rootPath + "Drum-Snare.wav");
this.drumPad.SetDrumSound(DrumKind.Shaker, rootPath + "Drum-Shaker.wav");
this.drumPad.SetDrumSound(DrumKind.ClosedHiHat, rootPath + "Drum-Closed-Hi-Hat.wav");
this.drumPad.SetDrumSound(DrumKind.Cowbell, rootPath + "Cowbell.wav");
this.drumPad.SetDrumSound(DrumKind.OpenHiHat, rootPath + "Drum-Open-Hi-Hat.wav");
this.drumPad.SetDrumSound(DrumKind.RideCymbal, rootPath + "Drum-Ride-Cymbal.wav");
this.drumPad.SetDrumSound(DrumKind.FloorTom, rootPath + "developer_loud.wav");
this.drumPad.SetDrumSound(DrumKind.HighTom, rootPath + "satya_fantastic.wav");
this.oscillator = new Oscillator();
this.looper = new Looper();
this.demultiplexer = new AudioDemultiplexer();
this.looper.ListenTo(this.drumPad);
this.demultiplexer.ListenTo(this.looper);
this.demultiplexer.ListenTo(this.oscillator);
this.renderer.ListenTo(this.demultiplexer);
Play();
}
public Recordset Keltner(Navigator pNav, Recordset pOHLCV, int Periods, double Factor, IndicatorType MAType, string Alias)
{ // Same as STARC
Recordset Results = new Recordset();
int recordCount = pOHLCV.GetField("Close").RecordCount;
Field top = new Field();
top.Initialize(recordCount, Alias + " Top");
Field bottom = new Field();
bottom.Initialize(recordCount, Alias + " Bottom");
Oscillator os = new Oscillator();
Field tr = os.TrueRange(pNav, pOHLCV, "atr").GetField("atr");
MovingAverage ma = new MovingAverage();
Field atr = ma.SimpleMovingAverage(pNav, tr, Periods, "atr").GetField("atr");
Field median = ma.MovingAverageSwitch(pNav, pOHLCV.GetField("Close"), Periods, MAType, Alias + " Median").GetField(Alias + " Median");
for (int record = 1; record < recordCount + 1; record++)
{
double shift = Factor * atr.ValueEx(record);
top.SetValue(record, median.Value(record) + shift);
bottom.SetValue(record, median.Value(record) - shift);
}
Results.AddField(top);
Results.AddField(median);
Results.AddField(bottom);
return(Results);
}
void Run()
{
var quit = new ManualResetEvent(false);
Console.CancelKeyPress += (s, a) => {
quit.Set();
a.Cancel = true;
};
using (var fmod = new FmodSystem())
{
fmod.Init();
using (oscillator = (Oscillator)fmod.CreateDsp(DspType.Oscillator))
{
oscillator.Play();
while (!quit.WaitOne(0))
{
ShowPrompt();
ProcessInput(quit);
Thread.Sleep(1);
}
}
fmod.CloseSystem();
}
}
protected override double Wave(double time, double frequency, double amplitude, double phase)
{
return(Oscillator.SineWave(time, frequency, amplitude / 2, Math.Sin(time * Math.PI * 2 * 3))
+ Oscillator.SineWave(time, frequency * 4, amplitude / 4, Math.Sin(time * Math.PI * 2 * 5))
+ Oscillator.SineWave(time, frequency * 8, amplitude / 8, Math.Sin(time * Math.PI * 7))
+ Oscillator.Noise(time, amplitude / 8));
}
void AudioChunkTreeView_AfterCheck(object sender, TreeViewEventArgs e)
{
if (e.Node.Level == 2)
{
Oscillator osc = e.Node.Tag as Oscillator;
osc.Enable = e.Node.Checked;
}
}
void Start()
{
oscillatorsList = gameObject.GetComponentsInChildren <Oscillator>();
wavesArray = new wave[oscillatorsList.Length * wavesCount];
for (int i = 0; i < oscillatorsList.Length; i++)
{
Oscillator osc = oscillatorsList[i];
osc.phase += osc.frequency * framePeriod;
for (int j = 0; j < wavesCount; j++)
{
int wi = i * wavesCount + j;
wavesArray[wi].pos = osc.transform.position;
wavesArray[wi].phase = 0;
}
}
wavesBuffer = new ComputeBuffer(wavesArray.Length, System.Runtime.InteropServices.Marshal.SizeOf(typeof(wave)), ComputeBufferType.Default);
wavesBuffer.SetData(wavesArray);
wavesArray = new wave[oscillatorsList.Length];
wavesUpdateBuffer = new ComputeBuffer(wavesArray.Length, System.Runtime.InteropServices.Marshal.SizeOf(typeof(wave)), ComputeBufferType.Default);
kiWavesUpdate = mediumCompute.FindKernel("wavesUpdate");
mediumCompute.SetBuffer(kiWavesUpdate, "wavesBuffer", wavesBuffer);
mediumCompute.SetBuffer(kiWavesUpdate, "wavesUpdateBuffer", wavesUpdateBuffer);
surfersList = gameObject.GetComponentsInChildren <Surfer>();
if (surfersList.Length > 0)
{
surfersArray = new Vector3[surfersList.Length];
for (int i = 0; i < surfersList.Length; i++)
{
surfersArray[i] = surfersList[i].transform.position;
}
surfersBuffer = new ComputeBuffer(surfersArray.Length, System.Runtime.InteropServices.Marshal.SizeOf(typeof(Vector3)), ComputeBufferType.Default);
surfersBuffer.SetData(surfersArray);
kiSurfersUpdate = mediumCompute.FindKernel("surfersUpdate");
mediumCompute.SetBuffer(kiSurfersUpdate, "wavesBuffer", wavesBuffer);
mediumCompute.SetBuffer(kiSurfersUpdate, "surfersBuffer", surfersBuffer);
}
mediumCompute.SetFloat("waveSpeed", waveSpeed);
mediumCompute.SetFloat("framePeriod", framePeriod);
mediumCompute.SetInt("oscillatorsCount", oscillatorsList.Length);
mediumCompute.SetInt("wavesCount", wavesCount);
mediumCompute.SetInt("curWaveIndex", curWaveIndex);
for (int i = 0; i < wavesCount; i++)
{
wavesUpdate();
}
Shader.SetGlobalBuffer("wavesBuffer", wavesBuffer);
Shader.SetGlobalFloat("waveSpeed", waveSpeed);
Shader.SetGlobalFloat("framePeriod", framePeriod);
Shader.SetGlobalInt("oscillatorsCount", oscillatorsList.Length);
Shader.SetGlobalInt("wavesCount", wavesCount);
Shader.SetGlobalInt("curWaveIndex", curWaveIndex);
}
// Use this for initialization
void Start()
{
for (int i = 0; i < oscillators.Length; i++)
{
oscillators[i] = new Oscillator();
spheres[i] = GameObject.CreatePrimitive(PrimitiveType.Sphere);
spheres[i].transform.position = new Vector3(UnityEngine.Random.value, UnityEngine.Random.value, UnityEngine.Random.value);
}
}
public OscillatorModule(Oscillator oscillator, int outputs, float halfToneOffset = 0, float gain = 1f, int sampleRate = 44100)
{
this.oscillator = oscillator.Clone(sampleRate);
frequencyMultiplier = (float)Tone.FrequencyMultiplierFromNoteOffset(halfToneOffset);
this.gain = gain;
Inputs = new ConnectionsArray(1, 1);
Outputs = new ConnectionsArray(outputs);
output = new float[outputs];
}
private OscillatorModule(OscillatorModule oscMod, int sampleRate)
{
oscillator = oscMod.oscillator.Clone(sampleRate);
gain = oscMod.gain;
frequencyMultiplier = oscMod.frequencyMultiplier;
Inputs = new ConnectionsArray(1, 1);
Outputs = new ConnectionsArray(oscMod.Outputs.Count);
output = new float[Outputs.Count];
}
public void Constructor_Name_Num_Oscillations()
{
// arrange, act
var oscillator = new Oscillator(String.Empty, 0);
// assert
Assert.AreEqual(VoltageSignal.LOW, oscillator.V.V, "Constructor: Voltage");
Assert.AreEqual(VoltageSignal.LOW, oscillator.Output.V, "Constructor: Output");
}
public override AbstractSoundController PlayNote(Pitch pitch, float volume, int durationTimeQuanta)
{
Oscillator oscillator = Instantiate(_oscillatorPrefab, gameObject.transform);
oscillator.waveForm = _waveForm;
oscillator.frequency = PitchFrequencyCalculator.GetFrequency(pitch);
oscillator.gain = volume * _masterGain;
return(new OscillatorSoundController(oscillator, durationTimeQuanta));
}
/// <summary>
/// Action to be executd for calculating indicator
/// </summary>
/// <returns>for future usage. Must be ignored at this time.</returns>
protected override bool TrueAction()
{
// Validate
int size = _chartPanel._chartX.RecordCount;
if (size == 0)
{
return(false);
}
int paramInt1 = ParamInt(1);
if (paramInt1 < 1 || paramInt1 > size / 2)
{
ProcessError("Invalid Periods for indicator " + FullName, IndicatorErrorType.ShowErrorMessage);
return(false);
}
IndicatorType param2 = (IndicatorType)ParamInt(2);
if (param2 < Constants.MA_START || param2 > Constants.MA_END)
{
ProcessError("Invalid Moving Average Type for indicator " + FullName, IndicatorErrorType.ShowErrorMessage);
return(false);
}
// Get the data
string paramStr0 = ParamStr(0);
Field pSource = SeriesToField("Source", paramStr0, size);
if (!EnsureField(pSource, paramStr0))
{
return(false);
}
Navigator pNav = new Navigator();
Recordset pRS = new Recordset();
pRS.AddField(pSource);
pNav.Recordset_ = pRS;
// Calculate the indicator
Oscillator ta = new Oscillator();
Recordset pInd = ta.DetrendedPriceOscillator(pNav, pSource, paramInt1, param2, FullName);
// Output the indicator values
Clear();
for (int n = 0; n < size; ++n)
{
AppendValue(DM.GetTimeStampByIndex(n), n < paramInt1 * 2 ? null : pInd.Value(FullName, n + 1));
}
return(_calculateResult = PostCalculate());
}
/// <summary>
/// Action to be executd for calculating indicator
/// </summary>
/// <returns>for future usage. Must be ignored at this time.</returns>
protected override bool TrueAction()
{
// Validate
int size = _chartPanel._chartX.RecordCount;
if (size == 0)
{
return(false);
}
int paramInt1 = ParamInt(1);
if (paramInt1 < 1 || paramInt1 > size)
{
ProcessError("Invalid Periods for indicator " + FullName, IndicatorErrorType.ShowErrorMessage);
return(false);
}
// Get the data
string paramStr0 = ParamStr(0);
Field pHigh = SeriesToField("High", paramStr0 + ".high", size);
if (!EnsureField(pHigh, paramStr0 + ".high"))
{
return(false);
}
Field pLow = SeriesToField("Low", paramStr0 + ".low", size);
if (!EnsureField(pLow, paramStr0 + ".low"))
{
return(false);
}
Navigator pNav = new Navigator();
Recordset pRS = new Recordset();
pRS.AddField(pHigh);
pRS.AddField(pLow);
pNav.Recordset_ = pRS;
// Calculate the indicator
Oscillator ta = new Oscillator();
Recordset pInd = ta.FractalChaosOscillator(pNav, pRS, paramInt1, FullName);
// Output the indicator values
Clear();
for (int n = 0; n < size; ++n)
{
AppendValue(DM.GetTimeStampByIndex(n), n < paramInt1 ? null : pInd.Value(FullName, n + 1));
}
return(_calculateResult = PostCalculate());
}
public List <Oscillator> GetDatasFromAccess_Oscillator(string path, string sheetName = "Sheet1")
{
try
{
workbook = Factory.GetWorkbook(path);
worksheet = workbook.Worksheets[sheetName];
if (worksheet == null)
{
throw new Exception("worksheet为空");
}
int count = worksheet.UsedRange.RowCount - 1;
List <Oscillator> lstCapacitor = new List <Oscillator>();
for (int i = 0; i < count; i++)
{
Oscillator obj = new Oscillator();
//从第2行开始为第一个数据
obj.PartNumber = worksheet.Cells[string.Format("A{0}", i + 2)].Value.ToString();
obj.PartType = worksheet.Cells[string.Format("B{0}", i + 2)].Value.ToString();
obj.Value = GetValue(worksheet.Cells[string.Format("C{0}", i + 2)].Value);
obj.Description = GetValue(worksheet.Cells[string.Format("D{0}", i + 2)].Value);
obj.Rating = GetValue(worksheet.Cells[string.Format("E{0}", i + 2)].Value);
obj.Tolerance = GetValue(worksheet.Cells[string.Format("F{0}", i + 2)].Value);
obj.SchematicPart = GetValue(worksheet.Cells[string.Format("G{0}", i + 2)].Value);
obj.LayoutPCBFootprint = GetValue(worksheet.Cells[string.Format("H{0}", i + 2)].Value);
obj.AllegroPCBFootprint = GetValue(worksheet.Cells[string.Format("I{0}", i + 2)].Value);
obj.PSpice = GetValue(worksheet.Cells[string.Format("J{0}", i + 2)].Value);
obj.ManufacturerPartNumber = GetValue(worksheet.Cells[string.Format("K{0}", i + 2)].Value);
obj.Manufacturer = GetValue(worksheet.Cells[string.Format("L{0}", i + 2)].Value);
obj.DistributorPartNumber = GetValue(worksheet.Cells[string.Format("M{0}", i + 2)].Value);
obj.Distributor = GetValue(worksheet.Cells[string.Format("N{0}", i + 2)].Value);
obj.Price = worksheet.Cells[string.Format("O{0}", i + 2)].Value == null?0:Convert.ToDouble(worksheet.Cells[string.Format("O{0}", i + 2)].Value.ToString());
obj.Availability = GetValue(worksheet.Cells[string.Format("P{0}", i + 2)].Value);
obj.Datasheet = GetValue(worksheet.Cells[string.Format("Q{0}", i + 2)].Value);
obj.ActivepartsID = GetValue(worksheet.Cells[string.Format("R{0}", i + 2)].Value);
obj.OperatingTemperatureRange = GetValue(worksheet.Cells[string.Format("S{0}", i + 2)].Value);
obj.StorageTemperatureRange = GetValue(worksheet.Cells[string.Format("T{0}", i + 2)].Value);
obj.TempratureStability = GetValue(worksheet.Cells[string.Format("U{0}", i + 2)].Value);
obj.PhaseNoise_10HZ = GetValue(worksheet.Cells[string.Format("V{0}", i + 2)].Value);
obj.PhaseNoise_100HZ = GetValue(worksheet.Cells[string.Format("W{0}", i + 2)].Value);
obj.PhaseNoise_1KHZ = GetValue(worksheet.Cells[string.Format("X{0}", i + 2)].Value);
obj.PhaseNoise_10KHZ = GetValue(worksheet.Cells[string.Format("Y{0}", i + 2)].Value);
obj.PhaseNoise_100KHZ = GetValue(worksheet.Cells[string.Format("Z{0}", i + 2)].Value);
lstCapacitor.Add(obj);
}
workbook.Close();
return(lstCapacitor);
}
catch (Exception e)
{
workbook.Close();
string exPath = "exception.txt";
System.IO.File.AppendAllText(exPath, e.Message);
throw e;
}
}
public Phase2Computer(string name, uint nIterations)
: base(name)
{
Oscillator = new Oscillator($"{name}-oscillator", nIterations);
DoWireUp();
Components.Record(nameof(Phase2Computer));
}
public BasicSynthOscUi(Oscillator osc)
{
this.osc = osc;
InitializeComponent();
osc.AdsrChanged += Osc_AdsrChanged;
osc.TypeChanged += Osc_TypeChanged;
osc.Pitchs.CollectionChanged += Pitchs_CollectionChanged;
Init();
}
void Start () {
angle = 45.0f;
gravity = 9.8f;
enemy = GameObject.FindWithTag ("Enemy");
enemyOsc = enemy.GetComponent <Oscillator> ();
shipTransform = transform;
hp = 100;
enemyHP = enemyScript.getHP ();
}
public OscFMProgrammer(string name, Oscillator osc, EmptyMonoComponent emptyFMSource, AdsrEnvelope env1, AdsrEnvelope env2, Lfo lfo1, Lfo lfo2)
{
#region Require
if (osc == null)
{
throw new ArgumentNullException("osc");
}
else if (emptyFMSource == null)
{
throw new ArgumentNullException("emptyFMSource");
}
else if (env1 == null)
{
throw new ArgumentNullException("env1");
}
else if (env2 == null)
{
throw new ArgumentNullException("env2");
}
else if (lfo1 == null)
{
throw new ArgumentNullException("lfo1");
}
else if (lfo2 == null)
{
throw new ArgumentNullException("lfo2");
}
#endregion
this.name = name;
this.osc = osc;
this.emptyFMSource = emptyFMSource;
this.env1 = env1;
this.env2 = env2;
this.lfo1 = lfo1;
this.lfo2 = lfo2;
}
private void Initialize(SampleRate sampleRate, StereoBuffer buffer)
{
emptyFMModulator = new EmptyMonoComponent(sampleRate, new MonoBuffer(0));
slewLimiter = new SlewLimiter(sampleRate, new MonoBuffer(0), "Portamento");
slewLimiter.SynthesizeReplaceEnabled = true;
envelope1 = new AdsrEnvelope(sampleRate, new MonoBuffer(0), "Envelope 1");
envelope1.SynthesizeReplaceEnabled = true;
envelope2 = new AdsrEnvelope(sampleRate, new MonoBuffer(0), "Envelope 2");
envelope2.SynthesizeReplaceEnabled = true;
lfo1 = new Lfo(sampleRate, new MonoBuffer(0), "LFO 1");
lfo1.SynthesizeReplaceEnabled = true;
lfo2 = new Lfo(sampleRate, new MonoBuffer(0), "LFO 2");
lfo2.SynthesizeReplaceEnabled = true;
Wavetable wave = Wavetable.Load("Sawtooth");
osc1 = new Oscillator(sampleRate, new MonoBuffer(0), "Oscillator 1", wave, emptyFMModulator, slewLimiter);
osc1.SynthesizeReplaceEnabled = true;
osc2 = new Oscillator(sampleRate, new MonoBuffer(0), "Oscillator 2", wave, emptyFMModulator, slewLimiter);
osc2.SynthesizeReplaceEnabled = true;
filter = new StateVariableFilter(sampleRate, new MonoBuffer(0), "State Variable Filter", osc1, osc2, envelope2, lfo2, envelope1);
filter.SynthesizeReplaceEnabled = true;
converter = new MonoToStereoConverter(sampleRate, buffer, filter);
converter.SynthesizeReplaceEnabled = false;
oscWaveProgrammer1 = new OscWaveProgrammer("Oscillator 1", osc1);
oscWaveProgrammer2 = new OscWaveProgrammer("Oscillator 2", osc2);
oscFMProgrammer1 = new OscFMProgrammer("Oscillator 1", osc1, emptyFMModulator, envelope1, envelope2, lfo1, lfo2);
oscFMProgrammer2 = new OscFMProgrammer("Oscillator 2", osc2, emptyFMModulator, envelope1, envelope2, lfo1, lfo2);
AddComponent(emptyFMModulator);
AddComponent(slewLimiter);
AddComponent(osc1);
AddComponent(osc2);
AddComponent(envelope1);
AddComponent(envelope2);
AddComponent(lfo1);
AddComponent(lfo2);
AddComponent(filter);
AddComponent(converter);
AddParameters(slewLimiter);
AddParameters(osc1);
AddParameters(oscWaveProgrammer1);
AddParameters(oscFMProgrammer1);
AddParameters(osc2);
AddParameters(oscWaveProgrammer2);
AddParameters(oscFMProgrammer2);
AddParameters(envelope1);
AddParameters(envelope2);
AddParameters(lfo1);
AddParameters(lfo2);
AddParameters(filter);
AddBendable(osc1);
AddBendable(osc2);
AddControllable(lfo1);
AddControllable(lfo2);
}
public void OscillatorsCreate(OscillatorsVM oscillatorsVM)
{
Oscillator oscillator = new Oscillator();
}
public PartialViewResult Oscillators()
{
CDTEntities db = new CDTEntities();
Oscillator oscillators = new Oscillator();
return PartialView("_OscillatorsPartial", oscillators);
}
public Channel()
{
m_vco = new Envelope(0.0, 60.0 / VELOCITY_MAX2, 30.0 / VELOCITY_MAX2, 1.0 / VELOCITY_MAX2);
m_vcf = new Envelope(0.0, 30.0 / VELOCITY_MAX2, 0.0, 1.0);
m_osc1 = new Oscillator();
m_mod1 = m_osc1.CurrentModulator;
m_osc2 = new Oscillator() { Form = OscillatorForm.Sine };
m_osc2.MakeAsLFO();
m_mod2 = m_osc2.CurrentModulator;
m_filter = new Filter();
m_osc2connect = m_enableFilter = false;
m_formant = new Formant();
m_volumeMode = 0;
m_expression = 0;
m_onCounter = 0;
m_lfoDelay = 0;
m_lfoDepth = 0;
m_lfoEnd = 0;
m_lpfAmount = 0;
m_lpfFrequency = 0;
m_lpfResonance = 0;
NoteIndex = 0;
Detune = 0;
m_frequencyIndex = 0;
Pan = 64;
Expression = 127;
Velocity = 100;
Input = new Events.Input() { Sens = 0, Pipe = 0 };
Output = new Events.Output() { Mode = ChannelOutputMode.Default, Pipe = 0 };
Ring = new Events.Ring() { Sens = 0, Pipe = 0 };
Sync = new Events.Sync() { Mode = ChannelOutputMode.Default, Pipe = 0 };
}