Jadi skrip ini adalah penambahbaikan saya kepada MacD yang kita semua tahu. ia lebih pantas dan lebih tepat dengan kurang lag pertama adalah berdasarkan OBV sebagai sumber utama Seterusnya kita menukar OBV kepada format gaya MA, dalam kes ini kita boleh menambah semua bentuk MA untuk mengira ia. seperti yang anda akan lihat dalam seminggugs ia mempunyai banyak jenis MA kerana setiap behave berbeza Saya membuat isyarat dalam bentuk linear hanya untuk menjadikannya lebih tajam / dan pada akhirnya untuk membuat isyarat saya menggunakan kaedah Alex Grover (lelaki ini adalah seorang jenius:)) Dalam langkah terakhir kita boleh membuat titik pivot pada baru kita untuk MacD Hasil akhir adalah MACD yang lebih cepat dan lebih tepat dan lebih banyak pilihan untuk pengubahsuaian daripada MACD biasa. Ini adalah penunjuk jumlah berasaskan jadi dalam beberapa grafik di mana jumlah tidak wujud ini tidak akan berfungsi
Ujian belakang
/*backtest start: 2022-04-30 00:00:00 end: 2022-05-29 23:59:00 period: 30m basePeriod: 15m exchanges: [{"eid":"Futures_Binance","currency":"BTC_USDT"}] */ //@version=4 study("OBV MACD Indicator",overlay=false) // MACD src1 = close window_len = 28 v_len = 14 price_spread = stdev(high-low, window_len) v = cum(sign(change(src1)) * volume) smooth = sma(v, v_len) v_spread = stdev(v - smooth, window_len) shadow = (v - smooth) / v_spread * price_spread out = shadow > 0 ? high + shadow : low + shadow //plot(out, style=line,linewidth=3, color=color) len10=input(1,title="OBV Length ") obvema=ema(out,len10) // src = obvema type = input(defval="DEMA", title="MA Type", options=["TDEMA", "TTEMA", "TEMA", "DEMA", "EMA", "AVG", "THMA", "ZLEMA", "ZLDEMA", "ZLTEMA", "DZLEMA", "TZLEMA", "LLEMA", "NMA"]) showma = true len = input(9, title="MA Length ") showma1 = false len1 = 26 showma2 =false len2 = 52 nma(src, length1, length2) => lambda = length1 / length2 alpha = lambda * (length1 - 1) / (length1 - lambda) ma1 = ema(src, length1) ma2 = ema(ma1, length2) nma = (1 + alpha) * ma1 - alpha * ma2 dema(src, len) => ma1 = ema(src, len) ma2 = ema(ma1, len) 2 * ma1 - ma2 tema(src, len) => ma1 = ema(src, len) ma2 = ema(ma1, len) ma3 = ema(ma2, len) 3 * (ma1 - ma2) + ma3 tdema(src, len) => ma1 = dema(src, len) ma2 = dema(ma1, len) ma3 = dema(ma2, len) 3 * (ma1 - ma2) + ma3 ttema(src, len) => ma1 = tema(src, len) ma2 = tema(ma1, len) ma3 = tema(ma2, len) 3 * (ma1 - ma2) + ma3 tnma(src, len) => ma1 = nma(src, len, 3) ma2 = nma(ma1, len, 3) ma3 = nma(ma2, len, 3) 3 * (ma1 - ma2) + ma3 hma(src, len) => wma(2*wma(src, len/2)-wma(src, len), round(sqrt(len))) thma(src, len) => ma1 = hma(src, len) ma2 = hma(ma1, len) ma3 = hma(ma2, len) 3 * (ma1 - ma2) + ma3 zlema(src, len) => lag = round((len - 1) / 2) zlsrc = src + (src - src[lag]) ema(zlsrc, len) zldema(src, len) => lag = round((len - 1) / 2) zlsrc = src + (src - src[lag]) dema(zlsrc, len) zltema(src, len) => lag = round((len - 1) / 2) zlsrc = src + (src - src[lag]) tema(zlsrc, len) dzlema(src, len) => ma1 = zlema(src, len) ma2 = zlema(ma1, len) 2 * ma1 - ma2 tzlema(src, len) => ma1 = zlema(src, len) ma2 = zlema(ma1, len) ma3 = zlema(ma2, len) 3 * (ma1 - ma2) + ma3 llema(src, len) => srcnew = 0.25*src + 0.5*src[1] + 0.25*src[2] ema(srcnew, len) lltema(src, len) => srcnew = 0.25*src + 0.5*src[1] + 0.25*src[2] tema(srcnew, len) myma(src, len) => if type == "EMA" ema(src, len) else if type == "DEMA" dema(src, len) else if type == "TEMA" tema(src, len) else if type == "TDEMA" tdema(src, len) else if type == "TTEMA" ttema(src, len) else if type == "THMA" thma(src, len) else if type == "ZLEMA" zlema(src, len) else if type == "ZLDEMA" zldema(src, len) else if type == "ZLTEMA" zltema(src, len) else if type == "DZLEMA" dzlema(src, len) else if type == "TZLEMA" tzlema(src, len) else if type == "LLEMA" llema(src, len) else if type == "NMA" nma(src, len, len1) else avg(ttema(src, len), tdema(src, len)) ma = showma ? myma(src, len) : na slow_length = input(title="MACD Slow Length", type=input.integer, defval=26) //signal_length = input(title="MACD Signal Smoothing", type=input.integer, minval = 1, maxval = 50, defval = 9) src12=close plot(0,linewidth=3,color=color.black) // Calculating MACD slow_ma = ema(src12, slow_length) macd =ma-slow_ma //signal_length=input(9) //signal = ema(macd, signal_length) //plot(signal,linewidth=2) src5 = macd len5 = input(2) offset = 0 calcSlope(src5, len5) => sumX = 0.0 sumY = 0.0 sumXSqr = 0.0 sumXY = 0.0 for i = 1 to len5 val = src5[len5-i] per = i + 1.0 sumX := sumX + per sumY := sumY + val sumXSqr := sumXSqr + per * per sumXY := sumXY + val * per slope = (len5 * sumXY - sumX * sumY) / (len5 * sumXSqr - sumX * sumX) average = sumY / len5 intercept = average - slope * sumX / len5 + slope [slope, average, intercept] var float tmp = na [s, a5, i] = calcSlope(src5, len5) tt1=(i + s * (len5 - offset)) ////script based on alex grover from https://www.tradingview.com/script/KzTi6CZP-T-Channels/ p = 1,src15=tt1 b5 = 0.,dev5 = 0.,oc = 0 n5 = cum(1) - 1 a15 = cum(abs(src15 - nz(b5[1],src15)))/n5*p b5 := src15 > nz(b5[1],src15) + a15 ? src15 : src15 < nz(b5[1],src15) - a15 ? src15 : nz(b5[1],src15) //---- dev5 := change(b5) ? a15 : nz(dev5[1],a15) //---- oc := change(b5) > 0 ? 1 : change(b5) < 0 ? -1 : nz(oc[1]) //---- cs = oc == 1 ? color.blue : color.red //change(oc)>0 plot(b5,color=cs,linewidth=4,transp=50) // down = change(oc)<0 up = change(oc)>0 showsignal=input(false) plot(showsignal and up ?tt1 :na, style=plot.style_cross, color=color.blue, linewidth=4, transp=0,offset=-1) plot(showsignal and down ?tt1 :na, style=plot.style_cross, color=color.red, linewidth=4, transp=0,offset=-1) //hist = macd - signal //barColor =hist >= 0 and hist> signal ? color.teal : hist > 0 and hist < signal ? color.lime : hist < 0 and hist < signal ? color.red : color.orange //plot(hist, color=barColor, style=plot.style_histogram, linewidth=3) upper = tt1 lower = tt1 // DIVS code piv = input(true, "Hide pivots?") shrt = false xbars = input(50, "period", input.integer, minval=1) hb = abs(highestbars(upper, xbars)) lb = abs(lowestbars(lower, xbars)) max = float(na) max_upper = float(na) min = float(na) min_lower = float(na) pivoth = bool(na) pivotl = bool(na) max := hb == 0 ? close : na(max[1]) ? close : max[1] max_upper := hb == 0 ? upper : na(max_upper[1]) ? upper : max_upper[1] min := lb == 0 ? close : na(min[1]) ? close : min[1] min_lower := lb == 0 ? lower : na(min_lower[1]) ? lower : min_lower[1] if close > max max := close max if upper > max_upper max_upper := upper max_upper if close < min_lower min_lower := lower min_lower if lower < min_lower min_lower := lower min_lower pivoth := max_upper == max_upper[2] and max_upper[2] != max_upper[3] ? true : na pivotl := min_lower == min_lower[2] and min_lower[2] != min_lower[3] ? true : na plotshape(piv ? na : shrt ? na : pivoth ? max_upper + 2 : na, location=location.absolute, style=shape.labeldown, color=color.red, size=size.tiny, text="Pivot", textcolor=color.white, transp=0, offset=0) plotshape(piv ? na : shrt ? na : pivotl ? min_lower - 2 : na, location=location.absolute, style=shape.labelup, color=color.blue, size=size.tiny, text="Pivot", textcolor=color.white, transp=0, offset=0) if pivoth strategy.entry("Enter Long", strategy.long) else if pivotl strategy.entry("Enter Short", strategy.short)