本文整理匯總了Golang中github.com/wiless/gocomm.SComplex128Obj.Ts方法的典型用法代碼示例。如果您正苦於以下問題：Golang SComplex128Obj.Ts方法的具體用法？Golang SComplex128Obj.Ts怎麽用？Golang SComplex128Obj.Ts使用的例子？那麽, 這裏精選的方法代碼示例或許可以為您提供幫助。您也可以進一步了解該方法所在類github.com/wiless/gocomm.SComplex128Obj的用法示例。
在下文中一共展示了SComplex128Obj.Ts方法的3個代碼示例，這些例子默認根據受歡迎程度排序。您可以為喜歡或者感覺有用的代碼點讚，您的評價將有助於係統推薦出更棒的Golang代碼示例。
示例1: main
func main() {
var channel core.MPChannel
channel.InitializeChip()
N := 100
param := core.NewIIDChannel()
param.Ts = 4
pdp := vlib.VectorF{1, .1}
param.SetPDP(pdp)
param.Mode = ""
channel.InitParam(param)
// samples := vlib.VectorC(sources.RandNCVec(N, 1))
samples := vlib.NewOnesC(N)
var data gocomm.SComplex128Obj
data.Ts = 2
for i := 0; i < N; i++ {
data.Ch = samples[i]
// fmt.Printf("\n Input %d = %v", i, data)
chout := channel.ChannelFn(data)
fmt.Printf("\n %d I/O : %v ==> %v", i, data.Ch, chout.Ch)
data.UpdateTimeStamp()
}
}示例2: main
func main() {
N := 20 /// 20 samples
L := 4 /// 5tap channel
begin := time.Now()
var cdma core.CDMA
cdma.InitializeChip()
cdma.SetSpreadCode(vlib.NewOnesC(L), true)
samples := vlib.VectorC(sources.RandNCVec(N, 1))
var data gocomm.SComplex128Obj
/// METHOD A
data.Ts = 1
data.TimeStamp = 0
data.MaxExpected = N
data.Message = ""
for i := 0; i < N; i++ {
data.Next(samples[i])
chips := cdma.SpreadFn(data)
output := cdma.DeSpreadFn(chips)
fmt.Printf("\nTxSymbol %v ", data)
// fmt.Printf("\nTx %v ", chips)
fmt.Printf("\nRxSymbol %v ", output)
}
/// METHOD B
// dataArray.MaxExpected = samples.Size()
// inCHA := gocomm.NewComplex128Channel()
// outputPin := filter.PinByID(1)
// go filter.Filter(inCHA)
// go chipset.Sink(outputPin)
// /// Actual data pushing
// for i := 0; i < N; i++ {
// dataArray.MaxExpected = N
// dataArray.Ch = samples[i]
// inCHA <- dataArray
// }
//fmt.Printf("\nFilter Residues %v", filter.FilterMemory)
// Of code
fmt.Printf("\nTime Elapsed : %v\n", time.Since(begin))
}示例3: AWGNChannel
func (m *ChannelEmulator) AWGNChannel(dummy gocomm.Complex128Channel) {
// fmt.Printf("\n Noise ready to Input %v", dummy)
outCH := m.Pins["symbolOut"].Channel.(gocomm.Complex128Channel)
// fmt.Printf("\n Output ready to Output %v", outCH)
var chdataOut gocomm.SComplex128Obj
var chdataIn gocomm.SComplex128Obj
samples := 1
// result := make([]complex64, samples)
var StdDev float64 = math.Sqrt(m.noise * .5)
var Mean float64 = m.Mean
var noise complex128
// var noisevector vlib.VectorC
for i := 0; i < samples; i++ {
chdataIn = <-dummy
chdataOut.MaxExpected = chdataIn.MaxExpected
samples = chdataIn.MaxExpected
// fmt.Printf("\nAWGN expects %d samples @ %v", samples, dummy)
chdataOut.Message = chdataIn.Message
chdataOut.Ts = chdataIn.Ts
chdataOut.TimeStamp = chdataIn.TimeStamp
if !strings.Contains(chdataIn.Message, "BYPASS") {
if Mean == 0 && StdDev == 1 {
noise = complex128(complex(rand.NormFloat64(), rand.NormFloat64()))
} else {
noise = complex128(complex(rand.NormFloat64()*StdDev+Mean, rand.NormFloat64()*StdDev+Mean))
}
// noisevector = append(noisevector, noise)
chdataOut.Ch = chdataIn.Ch + noise
} else {
chdataOut.Ch = chdataIn.Ch
}
//fmt.Printf("\nNoise%f=%f", StdDev, noisevector)
outCH <- chdataOut
}
}