Diese Strategie kombiniert ein neuronales Netzwerkmodell, einen RSI-Indikator und einen Super Trend-Indikator für den Handel.
Die Logik lautet:
Erstellen Sie ein neuronales Netzwerkmodell mit Inputs, einschließlich Volumenänderung, Bollinger Bands, RSI usw.
Das Netzwerk prognostiziert zukünftige Preisänderungsraten
Berechnung der RSI-Werte und Kombination mit der prognostizierten Preisänderung
Erstellen dynamischer Stop-Loss-Linien basierend auf dem RSI
Gehen Sie kurz, wenn der Preis über den Stop-Loss-Wert steigt; gehen Sie lang, wenn der Preis unter den Stop-Down-Wert steigt
Verwenden Sie das Trendbeurteilungsverfahren "Super Trend" für die Filtration
Die Strategie nutzt die Fähigkeit neuronaler Netzwerke, komplexe Daten zu modellieren, mit zusätzlicher Signalverifizierung von Indikatoren wie RSI und Super Trend, um die Genauigkeit zu verbessern und gleichzeitig das Risiko zu kontrollieren.
Neuronale Netzwerke modellieren multidimensionale Daten zur Ermittlung von Trends
RSI hält an, um Gewinne zu schützen, Super Trend hilft beim Urteilen
Vielfache Indikatoren kombinieren sich zur Verbesserung der Signalqualität
Benötigt große Datensätze für das Neuronalnetz-Training
Notwendige Feinabstimmung der Parameter RSI und Super Trend
Leistung hängt von Modellvorhersagen ab, Unsicherheiten bestehen
Diese Strategie kombiniert maschinelles Lernen mit traditionellen Techniken zur Effizienz mit Risikokontrollen.
/*backtest
start: 2023-08-14 00:00:00
end: 2023-09-13 00:00:00
period: 2h
basePeriod: 15m
exchanges: [{"eid":"Futures_Binance","currency":"BTC_USDT"}]
*/
//@version=4
//ANN taken from https://www.tradingview.com/script/Eq4zZsTI-ANN-MACD-BTC/
//it only work for BTC as the ANN is trained for this data only
//super trend https://www.tradingview.com/script/VLWVV7tH-SuperTrend/
// Strategy version created for @che_trader
strategy ("ANN RSI SUPER TREND STRATEGY BY che_trader", overlay = true)
qty = input(10000, "Buy quantity")
testStartYear = input(2019, "Backtest Start Year")
testStartMonth = input(1, "Backtest Start Month")
testStartDay = input(1, "Backtest Start Day")
testStartHour = input(0, "Backtest Start Hour")
testStartMin = input(0, "Backtest Start Minute")
testPeriodStart = timestamp(testStartYear,testStartMonth,testStartDay,testStartHour,testStartMin)
testStopYear = input(2099, "Backtest Stop Year")
testStopMonth = input(1, "Backtest Stop Month")
testStopDay = input(30, "Backtest Stop Day")
testPeriodStop = timestamp(testStopYear,testStopMonth,testStopDay,0,0)
testPeriod() => true
max_bars_back = (21)
src = close[0]
// Essential Functions
// Highest - Lowest Functions ( All efforts goes to RicardoSantos )
f_highest(_src, _length)=>
_adjusted_length = _length < 1 ? 1 : _length
_value = _src
for _i = 0 to (_adjusted_length-1)
_value := _src[_i] >= _value ? _src[_i] : _value
_return = _value
f_lowest(_src, _length)=>
_adjusted_length = _length < 1 ? 1 : _length
_value = _src
for _i = 0 to (_adjusted_length-1)
_value := _src[_i] <= _value ? _src[_i] : _value
_return = _value
// Function Sum
f_sum(_src , _length) =>
_output = 0.00
_length_adjusted = _length < 1 ? 1 : _length
for i = 0 to _length_adjusted-1
_output := _output + _src[i]
// Unlocked Exponential Moving Average Function
f_ema(_src, _length)=>
_length_adjusted = _length < 1 ? 1 : _length
_multiplier = 2 / (_length_adjusted + 1)
_return = 0.00
_return := na(_return[1]) ? _src : ((_src - _return[1]) * _multiplier) + _return[1]
// Unlocked Moving Average Function
f_sma(_src, _length)=>
_output = 0.00
_length_adjusted = _length < 0 ? 0 : _length
w = cum(_src)
_output:= (w - w[_length_adjusted]) / _length_adjusted
_output
// Definition : Function Bollinger Bands
Multiplier = 2
_length_bb = 20
e_r = f_sma(src,_length_bb)
// Function Standard Deviation :
f_stdev(_src,_length) =>
float _output = na
_length_adjusted = _length < 2 ? 2 : _length
_avg = f_ema(_src , _length_adjusted)
evar = (_src - _avg) * (_src - _avg)
evar2 = ((f_sum(evar,_length_adjusted))/_length_adjusted)
_output := sqrt(evar2)
std_r = f_stdev(src , _length_bb )
upband = e_r + (Multiplier * std_r) // Upband
dnband = e_r - (Multiplier * std_r) // Lowband
basis = e_r // Midband
// Function : RSI
length = input(14, minval=1) //
f_rma(_src, _length) =>
_length_adjusted = _length < 1 ? 1 : _length
alpha = _length_adjusted
sum = 0.0
sum := (_src + (alpha - 1) * nz(sum[1])) / alpha
f_rsi(_src, _length) =>
_output = 0.00
_length_adjusted = _length < 0 ? 0 : _length
u = _length_adjusted < 1 ? max(_src - _src[_length_adjusted], 0) : max(_src - _src[1] , 0) // upward change
d = _length_adjusted < 1 ? max(_src[_length_adjusted] - _src, 0) : max(_src[1] - _src , 0) // downward change
rs = f_rma(u, _length) / f_rma(d, _length)
res = 100 - 100 / (1 + rs)
res
_rsi = f_rsi(src, length)
// MACD
_fastLength = input(12 , title = "MACD Fast Length")
_slowlength = input(26 , title = "MACD Slow Length")
_signalLength = input(9 , title = "MACD Signal Length")
_macd = f_ema(close, _fastLength) - f_ema(close, _slowlength)
_signal = f_ema(_macd, _signalLength)
_macdhist = _macd - _signal
// Inputs on Tangent Function :
tangentdiff(_src) => nz((_src - _src[1]) / _src[1] )
// Deep Learning Activation Function (Tanh) :
ActivationFunctionTanh(v) => (1 - exp(-2 * v))/( 1 + exp(-2 * v))
// DEEP LEARNING
// INPUTS :
input_1 = tangentdiff(volume)
input_2 = tangentdiff(dnband)
input_3 = tangentdiff(e_r)
input_4 = tangentdiff(upband)
input_5 = tangentdiff(_rsi)
input_6 = tangentdiff(_macdhist)
// LAYERS :
// Input Layers
n_0 = ActivationFunctionTanh(input_1 + 0)
n_1 = ActivationFunctionTanh(input_2 + 0)
n_2 = ActivationFunctionTanh(input_3 + 0)
n_3 = ActivationFunctionTanh(input_4 + 0)
n_4 = ActivationFunctionTanh(input_5 + 0)
n_5 = ActivationFunctionTanh(input_6 + 0)
// Hidden Layers
n_6 = ActivationFunctionTanh( -2.580743 * n_0 + -1.883627 * n_1 + -3.512462 * n_2 + -0.891063 * n_3 + -0.767728 * n_4 + -0.542699 * n_5 + 0.221093)
n_7 = ActivationFunctionTanh( -0.131977 * n_0 + -1.543499 * n_1 + 0.019450 * n_2 + 0.041301 * n_3 + -0.926690 * n_4 + -0.797512 * n_5 + -1.804061)
n_8 = ActivationFunctionTanh( -0.587905 * n_0 + -7.528007 * n_1 + -5.273207 * n_2 + 1.633836 * n_3 + 6.099666 * n_4 + 3.509443 * n_5 + -4.384254)
n_9 = ActivationFunctionTanh( -1.026331 * n_0 + -1.289491 * n_1 + -1.702887 * n_2 + -1.052681 * n_3 + -1.031452 * n_4 + -0.597999 * n_5 + -1.178839)
n_10 = ActivationFunctionTanh( -5.393730 * n_0 + -2.486204 * n_1 + 3.655614 * n_2 + 1.051512 * n_3 + -2.763198 * n_4 + 6.062295 * n_5 + -6.367982)
n_11 = ActivationFunctionTanh( 1.246882 * n_0 + -1.993206 * n_1 + 1.599518 * n_2 + 1.871801 * n_3 + 0.294797 * n_4 + -0.607512 * n_5 + -3.092821)
n_12 = ActivationFunctionTanh( -2.325161 * n_0 + -1.433500 * n_1 + -2.928094 * n_2 + -0.715416 * n_3 + -0.914663 * n_4 + -0.485397 * n_5 + -0.411227)
n_13 = ActivationFunctionTanh( -0.350585 * n_0 + -0.810108 * n_1 + -1.756149 * n_2 + -0.567176 * n_3 + -0.954021 * n_4 + -1.027830 * n_5 + -1.349766)
// Output Layer
_output = ActivationFunctionTanh(2.588784 * n_6 + 0.100819 * n_7 + -5.305373 * n_8 + 1.167093 * n_9 +
3.770143 * n_10 + 1.269190 * n_11 + 2.090862 * n_12 + 0.839791 * n_13 + -0.196165)
_chg_src = tangentdiff(src) * 100
_seed = (_output - _chg_src)
// BEGIN ACTUAL STRATEGY
length1 = input(title="RSI Period", type=input.integer, defval=21)
mult = input(title="RSI Multiplier", type=input.float, step=0.1, defval=4.0)
wicks = input(title="Take Wicks into Account ?", type=input.bool, defval=false)
showLabels = input(title="Show Buy/Sell Labels ?", type=input.bool, defval=true)
srsi = mult* rsi(_seed ,length1)
longStop = hl2 - srsi
longStopPrev = nz(longStop[1], longStop)
longStop := (wicks ? low[1] : close[1]) > longStopPrev ? max(longStop, longStopPrev) : longStop
shortStop = hl2 + srsi
shortStopPrev = nz(shortStop[1], shortStop)
shortStop := (wicks ? high[1] : close[1]) < shortStopPrev ? min(shortStop, shortStopPrev) : shortStop
dir = 1
dir := nz(dir[1], dir)
dir := dir == -1 and (wicks ? high : close) > shortStopPrev ? 1 : dir == 1 and (wicks ? low : close) < longStopPrev ? -1 : dir
longColor = color.green
shortColor = color.red
plot(dir == 1 ? longStop : na, title="Long Stop", style=plot.style_linebr, linewidth=2, color=longColor)
buySignal = dir == 1 and dir[1] == -1
plotshape(buySignal ? longStop : na, title="Long Stop Start", location=location.absolute, style=shape.circle, size=size.tiny, color=longColor, transp=0)
plotshape(buySignal and showLabels ? longStop : na, title="Buy Label", text="Buy", location=location.absolute, style=shape.labelup, size=size.tiny, color=longColor, textcolor=color.white, transp=0)
plot(dir == 1 ? na : shortStop, title="Short Stop", style=plot.style_linebr, linewidth=2, color=shortColor)
sellSignal = dir == -1 and dir[1] == 1
plotshape(sellSignal ? shortStop : na, title="Short Stop Start", location=location.absolute, style=shape.circle, size=size.tiny, color=shortColor, transp=0)
plotshape(sellSignal and showLabels ? shortStop : na, title="Sell Label", text="Sell", location=location.absolute, style=shape.labeldown, size=size.tiny, color=shortColor, textcolor=color.white, transp=0)
if testPeriod() and buySignal
strategy.entry("Long",strategy.long)
if testPeriod() and sellSignal
strategy.entry("Short",strategy.short)