El guión ofrece 9 EMA diferentes con 14 tipos diferentes de MA.
El uso del script es encontrar la entrada en las altcoins de 1-4 horas mientras se utiliza el integrado13⁄21Estrategia de cruce que se utilizará en sincronía con el cruce Heikin Ashi con niveles de fibra de 0,236 nivel de fibra.
Cómo usarlo.
La inscripción se efectuará cuando el 1. el cruce da un P ((Signo positivo) y la vela se cierra por completo por encima del cruce 2. Cuando el Heikin Ashi se vuelve verde y la siguiente vela verde HA pasa por encima de la anterior vela verde HA. El precio debe estar por lo menos por encima del nivel de 0.236 desde el máximo del swing.
Todo lo mejor. EmperadorBTC
Prueba posterior
/*backtest start: 2022-04-06 00:00:00 end: 2022-05-05 23:59:00 period: 1h basePeriod: 15m exchanges: [{"eid":"Futures_Binance","currency":"BTC_USDT"}] */ //@version=3 study(title = "MA Emperor insiliconot" , shorttitle = "MA Emperor insiliconot", overlay=true, precision=8) haClose = close haOpen = open haHigh = high haLow = low haClose := (open + high + low + close) / 4 haOpen := (nz(haOpen[1]) + nz(haClose[1])) / 2 haHigh := max(high, max(haOpen, haClose)) haLow := min(low , min(haOpen, haClose)) ssrc = close ha = false o = ha ? haOpen : open c = ha ? haClose : close h = ha ? haHigh : high l = ha ? haLow : low ssrc := ssrc == close ? ha ? haClose : c : ssrc ssrc := ssrc == open ? ha ? haOpen : o : ssrc ssrc := ssrc == high ? ha ? haHigh : h : ssrc ssrc := ssrc == low ? ha ? haLow : l : ssrc ssrc := ssrc == hl2 ? ha ? (haHigh + haLow) / 2 : hl2 : ssrc ssrc := ssrc == hlc3 ? ha ? (haHigh + haLow + haClose) / 3 : hlc3 : ssrc ssrc := ssrc == ohlc4 ? ha ? (haHigh + haLow + haClose+ haOpen) / 4 : ohlc4 : ssrc type = input(defval = "LowPass", title = "Type", options = ["Butterworth_2Pole", "DEMA", "EMA", "Gaussian", "Geometric_Mean", "LowPass", "McGuinley", "SMA", "Sine_WMA", "Smoothed_MA", "Super_Smoother", "Triangular_MA", "Wilders", "Zero_Lag"]) len1=input(8, title ="MA 1") len2=input(13, title = "MA 2") len3=input(21, title = "MA 3") len4=input(55, title = "MA 4") len5=input(89, title = "MA 5") lenrib=input(120, title = "IB") lenrib2=input(121, title = "2B") lenrib3=input(200, title = "21b") lenrib4=input(221, title = "22b") onOff1 = input(defval=true, title="Enable 1") onOff2 = input(defval=true, title="Enable 2") onOff3 = input(defval=true, title="Enable 3") onOff4 = input(defval=false, title="Enable 4") onOff5 = input(defval=false, title="Enable 5") onOff6 = input(defval=false, title="Enable 6") onOff7 = input(defval=false, title="Enable 7") onOff8 = input(defval=false, title="Enable x") onOff9 = input(defval=false, title="Enable x") gauss_poles = input(3, "*** Gaussian poles ***", minval = 1, maxval = 14) linew = 2 shapes = false variant_supersmoother(src,len) => Pi = 2 * asin(1) a1 = exp(-1.414* Pi / len) b1 = 2*a1*cos(1.414* Pi / len) c2 = b1 c3 = (-a1)*a1 c1 = 1 - c2 - c3 v9 = 0.0 v9 := c1*(src + nz(src[1])) / 2 + c2*nz(v9[1]) + c3*nz(v9[2]) v9 variant_smoothed(src,len) => v5 = 0.0 v5 := na(v5[1]) ? sma(src, len) : (v5[1] * (len - 1) + src) / len v5 variant_zerolagema(src, len) => price = src l = (len - 1) / 2 d = (price + (price - price[l])) z = ema(d, len) z variant_doubleema(src,len) => v2 = ema(src, len) v6 = 2 * v2 - ema(v2, len) v6 variant_WiMA(src, length) => MA_s= nz(src) MA_s:=(src + nz(MA_s[1] * (length-1)))/length MA_s fact(num)=> a = 1 nn = num <= 1 ? 1 : num for i = 1 to nn a := a * i a getPoles(f, Poles, alfa)=> filt = f sign = 1 results = 0 + n//tv series spoofing for r = 1 to max(min(Poles, n),1) mult = fact(Poles) / (fact(Poles - r) * fact(r)) matPo = pow(1 - alfa, r) prev = nz(filt[r-1],0) sum = sign * mult * matPo * prev results := results + sum sign := sign * -1 results := results - n results variant_gauss(Price, Lag, Poles)=> Pi = 2 * asin(1) beta = (1 - cos(2 * Pi / Lag)) / ( pow (sqrt(2), 2.0 / Poles) - 1) alfa = -beta + sqrt(beta * beta + 2 * beta) pre = nz(Price, 0) * pow(alfa, Poles) filter = pre result = n > 0 ? getPoles(nz(filter[1]), Poles, alfa) : 0 filter := pre + result variant_mg(src, len)=> mg = 0.0 mg := na(mg[1]) ? ema(src, len) : mg[1] + (src - mg[1]) / (len * pow(src/mg[1], 4)) mg variant_sinewma(src, length) => PI = 2 * asin(1) sum = 0.0 weightSum = 0.0 for i = 0 to length - 1 weight = sin(i * PI / (length + 1)) sum := sum + nz(src[i]) * weight weightSum := weightSum + weight sinewma = sum / weightSum sinewma variant_geoMean(price, per)=> gmean = pow(price, 1.0/per) gx = for i = 1 to per-1 gmean := gmean * pow(price[i], 1.0/per) gmean ggx = n > per? gx : price ggx variant_butt2pole(pr, p1)=> Pi = 2 * asin(1) DTR = Pi / 180 a1 = exp(-sqrt(2) * Pi / p1) b1 = 2 * a1 * cos(DTR * (sqrt(2) * 180 / p1)) cf1 = (1 - b1 + a1 * a1) / 4 cf2 = b1 cf3 = -a1 * a1 butt_filt = pr butt_filt := cf1 * (pr + 2 * nz(pr[1]) + nz(pr[2])) + cf2 * nz(butt_filt[1]) + cf3 * nz(butt_filt[2]) variant_lowPass(src, len)=> LP = src sr = src a = 2.0 / (1.0 + len) LP := (a - 0.25 * a * a) * sr + 0.5 * a * a * nz(sr[1]) - (a - 0.75 * a * a) * nz(sr[2]) + 2.0 * (1.0 - a) * nz(LP[1]) - (1.0 - a) * (1.0 - a) * nz(LP[2]) LP variant_sma(src, len) => sum = 0.0 for i = 0 to len - 1 sum := sum + src[i] / len sum variant_trima(src, length) => len = ceil((length + 1) * 0.5) trima = sum(sma(src, len), len)/len trima variant(type, src, len) => type=="EMA" ? ema(src, len) : type=="LowPass" ? variant_lowPass(src, len) : type=="Linreg" ? linreg(src, len, 0) : type=="Gaussian" ? variant_gauss(src, len, gauss_poles) : type=="Sine_WMA" ? variant_sinewma(src, len) : type=="Geometric_Mean" ? variant_geoMean(src, len) : type=="Butterworth_2Pole" ? variant_butt2pole(src, len) : type=="Smoothed_MA" ? variant_smoothed(src, len) : type=="Triangular_MA" ? variant_trima(src, len) : type=="McGuinley" ? variant_mg(src, len) : type=="DEMA" ? variant_doubleema(src, len): type=="Super_Smoother" ? variant_supersmoother(src, len) : type=="Zero_Lag" ? variant_zerolagema(src, len) : type=="Wilders"? variant_WiMA(src, len) : variant_sma(src, len) c1=#44E2D6 c2=#DDD10D c3=#0AA368 c4=#E0670E c5=#AB40B2 cRed = #F93A00 ma1 = variant(type, ssrc, len1) ma2 = variant(type, ssrc, len2) ma3 = variant(type, ssrc, len3) ma4 = variant(type, ssrc, len4) ma5 = variant(type, ssrc, len5) ma6 = variant(type, ssrc, lenrib) ma7 = variant(type, ssrc, lenrib2) ma8 = variant(type, ssrc, lenrib3) ma9 = variant(type, ssrc, lenrib4) col1 = c1 col2 = c2 col3 = c3 col4 = c4 col5 = c5 p1 = plot(onOff1 ? ma1 : na, title = "MA 1", color = col1, linewidth = linew, style = linebr) p2 = plot(onOff2 ? ma2 : na, title = "MA 2", color = col2, linewidth = linew, style = linebr) p3 = plot(onOff3 ? ma3 : na, title = "MA 3", color = col3, linewidth = linew, style = linebr) p4 = plot(onOff4 ? ma4 : na, title = "MA 4", color = col4, linewidth = linew, style = linebr) p5 = plot(onOff5 ? ma5 : na, title = "MA 5", color = col5, linewidth = linew, style = linebr) p6 = plot(onOff6 ? ma6 : na, title = "MA 6", color = col5, linewidth = linew, style = linebr) p7 = plot(onOff7 ? ma7 : na, title = "MA 7", color = col5, linewidth = linew, style = linebr) p8 = plot(onOff8 ? ma8 : na, title = "MA 8", color = col5, linewidth = linew, style = linebr) p9 = plot(onOff9 ? ma9 : na, title = "MA 9", color = col5, linewidth = linew, style = linebr) longCond = crossover(ma2, ma3) shortCond = crossunder(ma2, ma3) plotshape(series=longCond, title="P", style=shape.triangleup, location=location.belowbar, color=green, text="P", size=size.small) plotshape(series=shortCond, title="N", style=shape.triangledown, location=location.abovebar, color=red, text="N", size=size.small) if longCond strategy.entry("Enter Long", strategy.long) else if shortCond strategy.entry("Enter Short", strategy.short)