O 888 BOT v4 é uma estratégia de negociação automática que combina vários indicadores para determinar tendências e emitir sinais de negociação. Ele usa uma combinação de oito indicadores, como a linha de equilíbrio, o filtro de intervalo, o ADX, o SAR de paralelo, o RSI de conduta, o MACD e o Brinks, para emitir sinais de negociação mais confiáveis.
Linha média de Jurik (JMA): uma linha média de eliminação de sinal de atraso, projetada por Mark Jurik para profissionais, cujo parâmetro de comprimento de eixo de eixo pode ser controlado para eliminar o ruído, e o parâmetro de eixo de fase de eixo de eixo e eixo de eixo pode ser equilibrado para o atraso e a desburocratização.
Filtro de intervalosO preço de um commodity pode variar de acordo com o seu preço de mercado, mas não de acordo com o seu preço de mercado. O preço de um commodity pode variar de acordo com o seu preço de mercado.
Indicador de direção média ((ADX)O ADX é um índice de inclinação positiva que excede a depreciação por um período de tempo, indicando um movimento de preços forte.
Paralisia da linha de paralisação (SAR)A linha de parâmetros é uma linha de parâmetros criada por Wilder, que coloca pontos para avaliar a tendência e, quando o preço toca o indicador, salta para o outro lado do preço, formando uma linha de parâmetros.
Carga RSIO RSI é baseado em um parâmetro de volume de transação que reflete com mais precisão a tendência do mercado.
MACD: Indicador de diferença de média lenta criado pela Appel, com histogramas que predeterminam a interseção da média. A MAC-Z inclui o cálculo do VWAP após a padronização dos preços.
Condições de volumeFiltração de transações abaixo da média de sinais, com diferentes níveis de volume correspondendo a diferentes alavancagens.
Faixa de BrinO indicador de bandas de ondas de John Bollinger é uma oportunidade de reentrada.
De acordo com oito indicadores, as condições de ocupação foram determinadas.
Depois de confirmar vários indicadores, gera um sinal de negociação para entrar em posição.
De acordo com o número de posições e os parâmetros de risco, o limite de parada de perda é definido.
Quando o preço atinge o ponto de parada, a posição de equilíbrio sai.
Quando o preço volta a atingir a faixa de Brin, há uma oportunidade de aumentar a posição e melhorar o preço de entrada.
A cada liquidação da posição, espera-se a confirmação do indicador para entrar novamente em uma nova posição.
A maior vantagem do 888 BOT v4 é o uso de uma combinação de indicadores, os diferentes indicadores podem ser verificados entre si, reduzindo os falsos sinais, o que é mais confiável do que uma única estratégia de indicadores. Além disso, permite aumentar a posição e melhorar o preço de entrada, para perseguir mais lucros.
O blogueiro também compartilhou algumas das suas ideias:
O JMA remove o atraso, elimina o ruído do filtro de intervalos e melhora a qualidade do sinal.
O ADX determina a intensidade da tendência e a SAR determina a direção do paralelo, o que torna a entrada mais precisa.
O RSI e o MACD trazem mais informações sobre o mercado e sinais de verificação em vários níveis.
As condições de volume de transação podem filtrar os falsos sinais, com diferentes níveis de volume correspondendo à alavancagem.
O modo de stop loss pode ser um stop loss de risco, um stop loss de ATR ou um stop loss duplo, para controlar o risco de queda.
A partir de agora, os investidores poderão investir em ações de Bitcoin, que podem melhorar o preço de entrada e gerar mais lucro.
Pode-se optar por dividir a parada, equilibrar o lucro e a probabilidade de lucro.
Pode-se selecionar intervalos de tempo e pares de negociação para fazer o teste de retorno e avaliar o efeito da estratégia.
Apesar de 888 BOT v4 reduzir o risco através de combinações de indicadores e otimização de parâmetros, existem riscos em qualquer estratégia de negociação, incluindo:
A probabilidade de um indicador emitir um sinal de erro, pode ser adequadamente ajustada para reduzir o parâmetro.
O risco de expansão dos prejuízos após a acumulação de ativos pode ser reduzido para evitar a otimização do preço de entrada.
A expansão dos prejuízos quando a correia não é acionada pode ser combinada com um indicador de tendência para determinar a hora de aumentar a posição.
O risco de que o stop loss seja demasiado relaxado pode ser adequadamente reduzido.
O tempo de detecção é insuficiente e o ciclo de detecção pode ser ampliado para verificação.
O volume de transações é insuficiente e a escala da posição deve ser ajustada.
“Ao contrário do que parece ser o caso, o que é realmente importante é que as pessoas tenham uma boa gestão de riscos”, Jenkinson.
O 888 BOT v4 também tem espaço para otimização:
Ajustar os parâmetros do indicador para encontrar a melhor combinação.
Tente substituir outros indicadores, como KDJ, indicadores de tremor, etc.
Otimização do preço de entrada.
Ajustar o algoritmo de stop-loss.
A garantia de perda é interrompida após a fixação do travão.
Optimizar o tamanho da posição e o tamanho da alavancagem.
Tente o aprendizado de máquina para otimizar automaticamente.
Aumentar as condições de abandono, evitando situações específicas.
Tente arbitragem entre mercados.
Desenvolver interfaces gráficas para melhorar a usabilidade.
Em suma, o 888 BOT v4 é um exemplo típico de uma estratégia multi-indicador, que pode aumentar significativamente a probabilidade de lucro através de uma combinação de indicadores. Mas nenhuma estratégia pode ser um pacote completo, que precisa ser constantemente testado e otimizado, e fazer um bom gerenciamento de risco para ser lucrativo.
/*backtest
start: 2023-09-20 00:00:00
end: 2023-09-27 00:00:00
period: 10m
basePeriod: 1m
exchanges: [{"eid":"Futures_Binance","currency":"BTC_USDT"}]
*/
// This source code is subject to the terms of the Mozilla Public License 2.0 at https://mozilla.org/MPL/2.0/
// © Xaviz
//@version=4
strategy(title = "888 BOT #backtest", shorttitle = "888💹", overlay = true, initial_capital = 10000, pyramiding = 10, currency = "USD",
default_qty_type = strategy.percent_of_equity, default_qty_value = 0, commission_value = 0.04)
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Inputs
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— Source input
src = input(hlc3, title = " SOURCE", type = input.source)
// ————— JMA inputs
Act_JMA = input(true, title = "JURIK MOVING AVERAGE", type = input.bool)
JMA_length = input(30, title = " JMA LENGTH", type = input.integer, minval = 0)
phase = input(40, title = " JMA PHASE", type = input.integer, minval = 0)
power = input(2.5, title = " JMA POWER", type = input.float, minval = 0, step = 0.5)
// ————— Range Filter inputs
Act_RF = input(true, title = "RANGE FILTER", type = input.bool)
per = input(20, title = " SAMPLING PERIOD", type = input.integer, minval = 1)
mult = input(1.7, title = " RANGE MULTIPLIER", type = input.float, minval = 0.1, step = 0.1)
// ————— ADX inputs
Act_ADX = input(true, title = "AVERAGE DIRECTIONAL INDEX", type = input.bool)
ADX_options = input("CLASSIC", title = " ADX OPTION", options = ["CLASSIC", "MASANAKAMURA"])
ADX_len = input(22, title = " ADX LENGTH", type = input.integer, minval = 1)
th = input(20, title = " ADX THRESHOLD", type = input.float, minval = 0, step = 0.5)
// ————— SAR inputs
Act_SAR = input(true, title = "PARABOLIC SAR", type = input.bool)
Sst = input (0.25, title = " SAR STAR", type = input.float, minval = 0.01, step = 0.01)
Sinc = input (0.25, title = " SAR INC", type = input.float, minval = 0.01, step = 0.01)
Smax = input (0.13, title = " SAR MAX", type = input.float, minval = 0.01, step = 0.01)
// ————— RSI with volume inputs
Act_RSI = input(true, title = "RSI VOLUME WEIGHTED", type = input.bool)
RSI_len = input(34, title = " RSI LENGHT", type = input.integer, minval = 1)
RSI_obos = input(45, title = " RSI CENTER LINE", type = input.integer, minval = 1)
// ————— MACD / MAC-Z inputs
Act_MACD = input(true, title = "MA CONVERGENCE/DIVERGENCE", type = input.bool)
MACD_options = input("MAC-Z", title = " MACD OPTION", options = ["MACD", "MAC-Z"])
fastLength = input(45, title = " MACD FAST MA LENGTH", type = input.integer, minval = 1)
slowLength = input(47, title = " MACD SLOW MA LENGTH", type = input.integer, minval = 1)
signalLength = input(13, title = " MACD SIGNAL LENGTH", type = input.integer, minval = 1)
lengthz = input(9, title = " Z-VWAP LENGTH", type = input.integer, minval = 1)
lengthStdev = input(14, title = " STDEV LENGTH", type = input.integer, minval = 1)
// ————— Volume inputs for entries condition and for calculate quantities later
Act_Vol = input(true, title = "VOLUME CONDITION", type = input.bool)
volume_f = input(1.4, title = " VOLUME FACTOR", type = input.float, minval = 0, step = 0.1)
sma_length = input(61, title = " SMA VOLUME LENGTH", type = input.integer, minval = 1)
// ————— First take profit input
tp_long0 = input(1.7, title = " TAKE PROFIT LONG %", type = input.float, minval = 0, step = 0.1)
tp_short0 = input(1.8, title = " TAKE PROFIT SHORT %", type = input.float, minval = 0, step = 0.1)
// ————— Stop Loss input
Act_sl = input(true, title = "ACTIVATE STOP LOSS 🧻", type = input.bool)
SL_options = input("NORMAL", title = " STOP LOSS OPTION", options = ["NORMAL", "ATR", "BOTH"])
sl0 = input(3.7, title = " STOP LOSS %", type = input.float, minval = 0, step = 0.1)
// ————— ATR Inputs
atrPeriod = input(13, title = " ATR SL PERIOD", type = input.integer, minval = 0)
multiplierPeriod = input(7.0, title = " ATR SL MULTIPLIER", type = input.float, minval = 0, step = 0.1)
// ————— Risk input
Risk = input(3.5, title = " % RISK ALLOWED", type = input.float, minval = 0, step = 0.5)
// ————— Confirmed Stop loss
Act_Conf_SL = input(false, title = "STOP LOSS CONFIRMED", type = input.bool)
// ————— Bollinger Bands inputs
Act_BB = input(true, title = "ACTIVATE BOLLINGER BANDS RE-ENTRY 🚀", type = input.bool)
BB_length = input(20, title = " BB LENGTH", type = input.integer, minval = 1)
BB_mult = input(1.9, title = " BB MULTIPLIER", type = input.float, minval = 0.001, step = 0.1)
bbBetterPrice = input(0.5, title = " % MINIMUM BETTER PRICE", type = input.float, minval = 0.1, step = 0.1)
Act_divide = input(false, title = "ACTIVATE DIVIDE TP", type = input.bool)
// ————— Backtest input
Act_BT = input(true, title = "BACKTEST 💹", type = input.bool)
backtest_time = input(180, title = " BACKTEST DAYS", type = input.integer, minval = 1)*24*60*60*1000
entry_Type = input("% EQUITY", title = " ENTRY TYPE", options = ["CONTRACTS","CASH","% EQUITY"])
et_Factor = (entry_Type == "CONTRACTS") ? 1 : (entry_Type == "% EQUITY") ? (100/(strategy.equity/close)) : close
quanTity = input(8.0, title = " QUANTITY (LEVERAGE 1X)", type = input.float, minval = 0, step = 0.5) / et_Factor
Max_Lev = input(8, title = " MAXIMUM LEVERAGE", type = input.integer, minval = 1, maxval = 8)
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Variables
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— Long/Short
var bool longCond = na, var bool shortCond = na
var int CondIni_long = 0, var int CondIni_short = 0
var bool _Final_longCondition = na, var bool _Final_shortCondition = na
var float last_open_longCondition = na, var float last_open_shortCondition = na
var float last_dynamic_Leverage_long = na, var float last_dynamic_Leverage_short = na
var int last_longCondition = na, var int last_shortCondition = na
var int last_Final_longCondition = na, var int last_Final_shortCondition = na
var int nLongs = na, var int nShorts = na
// ————— Take profit
var bool long_tp = na, var bool short_tp = na
var int last_long_tp = na, var int last_short_tp = na
var bool Final_Long_tp = na, var bool Final_Short_tp = na
// ————— Stop Loss
var int CondIni_long_sl = 0, var int CondIni_short_sl = 0
var bool Final_Long_sl0 = na, var bool Final_Short_sl0 = na
var bool Final_Long_sl = na, var bool Final_Short_sl = na
var int last_long_sl = na, var int last_short_sl = na
// ————— Indicators
var bool JMA_longCond = na, var bool JMA_shortCond = na
var bool RF_longCond = na, var bool RF_shortCond = na
var bool ADX_longCond = na, var bool ADX_shortCond = na
var bool SAR_longCond = na, var bool SAR_shortCond = na
var bool RSI_longCond = na, var bool RSI_shortCond = na
var bool MACD_longCond = na, var bool MACD_shortCond = na
var bool VOL_longCond = na, var bool VOL_shortCond = na
var bool JMA_XlongCond = na, var bool JMA_XshortCond = na
var bool RF_XlongCond = na, var bool RF_XshortCond = na
var bool ADX_XlongCond = na, var bool ADX_XshortCond = na
var bool SAR_XlongCond = na, var bool SAR_XshortCond = na
var int CondIni_long_BB = 0, var int CondIni_short_BB = 0
var bool Final_long_BB = na, var bool Final_short_BB = na
var int last_long_BB = na, var int last_short_BB = na
// ————— Average Price
var float sum_long = 0.0, var float sum_short = 0.0
var float Position_Price = 0.0
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Jurik Moving Average
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— JMA calculation
JMA(_JMA_length, _phase, _power, _src) =>
phaseRatio = _phase < -100 ? 0.5 : _phase > 100 ? 2.5 : _phase / 100 + 1.5
beta = 0.45 * (_JMA_length - 1) / (0.45 * (_JMA_length - 1) + 2)
alpha = pow(beta, _power)
jma = 0.0
e0 = 0.0
e0 := (1 - alpha) * _src + alpha * nz(e0[1])
e1 = 0.0
e1 := (_src - e0) * (1 - beta) + beta * nz(e1[1])
e2 = 0.0
e2 := (e0 + phaseRatio * e1 - nz(jma[1])) * pow(1 - alpha, 2) + pow(alpha, 2) * nz(e2[1])
jma := e2 + nz(jma[1])
// ————— Defining JMA trend
JMA_Rising = JMA(JMA_length, phase, power, src) > JMA(JMA_length, phase, power, src)[1]
JMA_Falling = JMA(JMA_length, phase, power, src) < JMA(JMA_length, phase, power, src)[1]
// ————— JMA Plotting
JMA_color = JMA_Rising ? color.lime : JMA_Falling ? #e91e63 : color.orange
plot(Act_JMA ? JMA(JMA_length, phase, power, src) : na, color=JMA_color, linewidth = 2, title= "JMA")
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Range Filter
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— Range Filter calculation
Range_filter(_src, _per, _mult) =>
float _upward = 0.0
float _downward = 0.0
wper = (_per*2) - 1
avrng = ema(abs(_src - _src[1]), _per)
_smoothrng = ema(avrng, wper) * _mult
_filt = _src
_filt := _src > nz(_filt[1]) ? ((_src-_smoothrng) < nz(_filt[1]) ? nz(_filt[1]) : (_src-_smoothrng)) : ((_src+_smoothrng) > nz(_filt[1]) ? nz(_filt[1]) : (_src+_smoothrng))
_upward := _filt > _filt[1] ? nz(_upward[1]) + 1 : _filt < _filt[1] ? 0 : nz(_upward[1])
_downward := _filt < _filt[1] ? nz(_downward[1]) + 1 : _filt > _filt[1] ? 0 : nz(_downward[1])
[_smoothrng,_filt,_upward,_downward]
// ————— Defining variables for include in future conditions
[smoothrng, filt, upward, downward] = Range_filter(src, per, mult)
// ————— Defining high and low bands
hband = filt + smoothrng
lband = filt - smoothrng
// ————— Range Filter Plotting
filtcolor = upward > 0 ? color.lime : downward > 0 ? color.red : color.orange
filtplot = plot(Act_RF ? filt : na, color = filtcolor, linewidth = 1, title = "RF")
hbandplot = plot(Act_RF ? hband : na, color = filtcolor, transp = 50, title = "RF High Target")
lbandplot = plot(Act_RF ? lband : na, color = filtcolor, transp = 50, title = "RF Low Target")
fill(hbandplot, lbandplot, color = filtcolor, title = "RF Target Range")
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— ADX
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— Classic ADX calculating
calcADX(_len) =>
up = change(high)
down = -change(low)
plusDM = na(up) ? na : (up > down and up > 0 ? up : 0)
minusDM = na(down) ? na : (down > up and down > 0 ? down : 0)
truerange = rma(tr, _len)
_plus = fixnan(100 * rma(plusDM, _len) / truerange)
_minus = fixnan(100 * rma(minusDM, _len) / truerange)
sum = _plus + _minus
_adx = 100 * rma(abs(_plus - _minus) / (sum == 0 ? 1 : sum), _len)
[_plus,_minus,_adx]
// ————— Masanakamura ADX calculating
calcADX_Masanakamura(_len) =>
SmoothedTrueRange = 0.0
SmoothedDirectionalMovementPlus = 0.0
SmoothedDirectionalMovementMinus = 0.0
TrueRange = max(max(high - low, abs(high - nz(close[1]))), abs(low - nz(close[1])))
DirectionalMovementPlus = high - nz(high[1]) > nz(low[1]) - low ? max(high - nz(high[1]), 0) : 0
DirectionalMovementMinus = nz(low[1]) - low > high - nz(high[1]) ? max(nz(low[1]) - low, 0) : 0
SmoothedTrueRange := nz(SmoothedTrueRange[1]) - (nz(SmoothedTrueRange[1]) /_len) + TrueRange
SmoothedDirectionalMovementPlus := nz(SmoothedDirectionalMovementPlus[1]) - (nz(SmoothedDirectionalMovementPlus[1]) / _len) + DirectionalMovementPlus
SmoothedDirectionalMovementMinus := nz(SmoothedDirectionalMovementMinus[1]) - (nz(SmoothedDirectionalMovementMinus[1]) / _len) + DirectionalMovementMinus
DIP = SmoothedDirectionalMovementPlus / SmoothedTrueRange * 100
DIM = SmoothedDirectionalMovementMinus / SmoothedTrueRange * 100
DX = abs(DIP-DIM) / (DIP+DIM)*100
adx = sma(DX, _len)
[DIP,DIM,adx]
// ————— Defining variables for include in future conditions
[DIPlusC,DIMinusC,ADXC] = calcADX(ADX_len)
[DIPlusM,DIMinusM,ADXM] = calcADX_Masanakamura(ADX_len)
DIPlus = ADX_options == "CLASSIC" ? DIPlusC : DIPlusM
DIMinus = ADX_options == "CLASSIC" ? DIMinusC : DIMinusM
ADX = ADX_options == "CLASSIC" ? ADXC : ADXM
// ————— Plotting ADX bar colors
ADX_color = DIPlus > DIMinus and ADX > th ? color.green : DIPlus < DIMinus and ADX > th ? color.red : color.orange
barcolor(color = Act_ADX ? ADX_color : na, title = "ADX")
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— SAR
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— SAR calculation from TV
SAR = sar(Sst, Sinc, Smax)
// ————— SAR Plotting
plot(Act_SAR ? SAR : na, color = ADX_color, style = plot.style_circles, title = "SAR")
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— RSI with Volume
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— RSI with volume calculation
WiMA(_src, W_length) =>
var float MA_s = 0.0
MA_s :=(_src + nz(MA_s[1] * (W_length-1)))/W_length
MA_s
RSI_Volume(fv, _length) =>
up = iff(fv > fv[1], abs(fv - fv[1]) * volume, 0)
dn = iff(fv < fv[1], abs(fv - fv[1]) * volume, 0)
upt = WiMA(up,_length)
dnt = WiMA(dn,_length)
100 * (upt / (upt + dnt))
// ————— Defining variable for include in conditions
RSI_V = RSI_Volume(src, RSI_len)
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— MACD
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— MAC-Z calculation
calc_zvwap(pds) =>
mean = sum(volume * close, pds) / sum(volume, pds)
vwapsd = sqrt(sma(pow(close - mean, 2), pds))
(close - mean ) / vwapsd
zscore = calc_zvwap(lengthz)
fastMA = sma(src, fastLength)
slowMA = sma(src, slowLength)
macd = fastMA - slowMA
macz = zscore + macd / stdev(src, lengthStdev)
signal = sma(macz, signalLength)
histmacz = macz - signal
// ————— MACD calculation
[_,_,histmacd] = macd(src, fastLength, slowLength, signalLength)
hist = MACD_options == "MACD" ? histmacd : histmacz
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Strategy
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— All indicators with long conditions and enable/disable option
JMA_longCond := (Act_JMA ? (JMA_Rising) : VOL_longCond)
RF_longCond := (Act_RF ? (high > hband and upward > 0) : JMA_longCond)
ADX_longCond := (Act_ADX ? (DIPlus > DIMinus and ADX > th) : RF_longCond)
SAR_longCond := (Act_SAR ? (SAR < close) : ADX_longCond)
RSI_longCond := (Act_RSI ? (RSI_V > RSI_obos) : SAR_longCond)
MACD_longCond := (Act_MACD ? (hist > 0) : RSI_longCond)
VOL_longCond := (Act_Vol ? (volume > sma(volume,sma_length) * volume_f) : MACD_longCond)
// ————— All indicators with short conditions and enable/disable option
JMA_shortCond := (Act_JMA ? (JMA_Falling) : VOL_shortCond)
RF_shortCond := (Act_RF ? (low < lband and downward > 0) : JMA_shortCond)
ADX_shortCond := (Act_ADX ? (DIPlus < DIMinus and ADX > th) : RF_shortCond)
SAR_shortCond := (Act_SAR ? (SAR > close) : ADX_shortCond)
RSI_shortCond := (Act_RSI ? (RSI_V < RSI_obos) : SAR_shortCond)
MACD_shortCond := (Act_MACD ? (hist < 0) : RSI_shortCond)
VOL_shortCond := (Act_Vol ? (volume > sma(volume,sma_length) * volume_f) : MACD_shortCond)
// ————— Defining long/short condition from indicators + volume
longCond := JMA_longCond and RF_longCond and ADX_longCond and SAR_longCond and RSI_longCond and MACD_longCond and VOL_longCond
shortCond := JMA_shortCond and RF_shortCond and ADX_shortCond and SAR_shortCond and RSI_shortCond and MACD_shortCond and VOL_shortCond
// ————— Avoiding confirmed long/short simultaneity
CondIni_long := longCond[1] ? 1 : shortCond[1] ? -1 : nz(CondIni_long[1])
CondIni_short := longCond[1] ? 1 : shortCond[1] ? -1 : nz(CondIni_short[1])
// ————— Confirmed long/short conditions
longCondition = (longCond[1] and nz(CondIni_long[1]) == -1)
shortCondition = (shortCond[1] and nz(CondIni_short[1]) == 1)
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Position Price
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— Last opened long/short price on unconfirmed/confirmed conditions
last_open_longCondition := longCondition or Final_long_BB[1] ? close[1] : nz(last_open_longCondition[1])
last_open_shortCondition := shortCondition or Final_short_BB[1] ? close[1] : nz(last_open_shortCondition[1])
// ————— Check if your last position was a confirmed long or a short
last_longCondition := longCondition or Final_long_BB[1] ? time : nz(last_longCondition[1])
last_shortCondition := shortCondition or Final_short_BB[1] ? time : nz(last_shortCondition[1])
in_longCondition = last_longCondition > last_shortCondition
in_shortCondition = last_shortCondition > last_longCondition
// ————— Check if your last position was a confirmed final long or short without BB
last_Final_longCondition := longCondition ? time : nz(last_Final_longCondition[1])
last_Final_shortCondition := shortCondition ? time : nz(last_Final_shortCondition[1])
// ————— Counting long & short iterations
nLongs := nz(nLongs[1])
nShorts := nz(nShorts[1])
// ————— Longs Counter
if longCondition or Final_long_BB
nLongs := nLongs + 1
nShorts := 0
sum_long := nz(last_open_longCondition) + nz(sum_long[1])
sum_short := 0.0
// ————— Shorts Counter
if shortCondition or Final_short_BB
nLongs := 0
nShorts := nShorts + 1
sum_short := nz(last_open_shortCondition) + nz(sum_short[1])
sum_long := 0.0
// ————— Calculating and Plotting the price average
Position_Price := nz(Position_Price[1])
Position_Price := longCondition or Final_long_BB ? sum_long/nLongs : shortCondition or Final_short_BB ? sum_short/nShorts : na
plot((nLongs > 1) or (nShorts > 1) ? Position_Price : na, title = "Average Price", color = in_longCondition ? color.aqua : color.orange, linewidth = 2, style = plot.style_cross)
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Take Profit
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— Take Profit divided by n entries
tp_long = (Act_divide and (nLongs > 1) ? tp_long0 / nLongs : tp_long0) / 100
tp_short = (Act_divide and (nShorts > 1) ? tp_short0 / nShorts : tp_short0) / 100
// ————— First TP Conditions
long_tp := high > (fixnan(Position_Price) * (1 + tp_long)) and in_longCondition
short_tp := low < (fixnan(Position_Price) * (1 - tp_short)) and in_shortCondition
// ————— Get the time of the last tp close
last_long_tp := long_tp ? time : nz(last_long_tp[1])
last_short_tp := short_tp ? time : nz(last_short_tp[1])
// ————— Final Take profit condition (never after the stop loss)
Final_Long_tp := (long_tp and last_longCondition > nz(last_long_tp[1]) and last_longCondition > nz(last_long_sl[1]))
Final_Short_tp := (short_tp and last_shortCondition > nz(last_short_tp[1]) and last_shortCondition > nz(last_short_sl[1]))
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Stop Loss
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— Stop Loss ATR calculation
ATR_SL_Long = low - atr(atrPeriod) * multiplierPeriod
ATR_SL_Short = high + atr(atrPeriod) * multiplierPeriod
longStopPrev = nz(ATR_SL_Long[1], ATR_SL_Long)
shortStopPrev = nz(ATR_SL_Short[1], ATR_SL_Short)
ATR_SL_Long := close[1] > longStopPrev ? max(ATR_SL_Long, longStopPrev) : ATR_SL_Long
ATR_SL_Short := close[1] < shortStopPrev ? min(ATR_SL_Short, shortStopPrev) : ATR_SL_Short
// ————— Calculating Sl according Risk and Initial Capital
sl = in_longCondition ?
min(sl0, (((Risk / (100 / (strategy.equity / close)))*100) / (quanTity * max(1, last_dynamic_Leverage_long) * max(1, nLongs)))) :
min(sl0, (((Risk / (100 / (strategy.equity / close)))*100) / (quanTity * max(1, last_dynamic_Leverage_short) * max(1, nShorts))))
// ————— Stop Loss long conditions
Normal_long_sl = Act_Conf_SL ? ((SL_options == "NORMAL") ? ((Act_sl and in_longCondition and close <= ((1 - (sl / 100)) * (fixnan(Position_Price))))) : na) :
((SL_options == "NORMAL") ? ((Act_sl and in_longCondition and low <= ((1 - (sl / 100)) * (fixnan(Position_Price))))) : na)
ATR_long_sl = Act_Conf_SL ? ((SL_options == "ATR") ? ((Act_sl and in_longCondition and close <= (ATR_SL_Long))) : na) :
((SL_options == "ATR") ? ((Act_sl and in_longCondition and low <= (ATR_SL_Long))) : na)
Both_long_sl = Act_Conf_SL ? ((SL_options == "BOTH") ? ((Act_sl and in_longCondition and close <= ((1 - (sl / 100)) * (fixnan(Position_Price)))) or
((Act_sl and in_longCondition and close <= (ATR_SL_Long)))) : na) :
((SL_options == "BOTH") ? ((Act_sl and in_longCondition and low <= ((1 - (sl / 100)) * (fixnan(Position_Price)))) or
((Act_sl and in_longCondition and low <= (ATR_SL_Long)))) : na)
// ————— Stop Loss short conditions
Normal_short_sl = Act_Conf_SL ? ((SL_options == "NORMAL") ? ((Act_sl and in_shortCondition and close >= ((1 + (sl / 100)) * (fixnan(Position_Price))))) : na) :
((SL_options == "NORMAL") ? ((Act_sl and in_shortCondition and high >= ((1 + (sl / 100)) * (fixnan(Position_Price))))) : na)
ATR_short_sl = Act_Conf_SL ? ((SL_options == "ATR") ? ((Act_sl and in_shortCondition and close >= (ATR_SL_Short))) : na) :
((SL_options == "ATR") ? ((Act_sl and in_shortCondition and high >= (ATR_SL_Short))) : na)
Both_short_sl = Act_Conf_SL ? ((SL_options == "BOTH") ? ((Act_sl and in_shortCondition and close >= ((1 + (sl/100)) * (fixnan(Position_Price)))) or
((Act_sl and in_shortCondition and close >= (ATR_SL_Short)))) : na) :
((SL_options == "BOTH") ? ((Act_sl and in_shortCondition and high >= ((1 + (sl/100)) * (fixnan(Position_Price)))) or
((Act_sl and in_shortCondition and high >= (ATR_SL_Short)))) : na)
// ————— Get the time of the last sl close
last_long_sl := Normal_long_sl or ATR_long_sl or Both_long_sl ? time : nz(last_long_sl[1])
last_short_sl := Normal_short_sl or ATR_short_sl or Both_short_sl ? time : nz(last_short_sl[1])
// ————— Final Stop Loss condition
Final_Long_sl := (Normal_long_sl or ATR_long_sl or Both_long_sl) and last_longCondition > nz(last_long_sl[1]) and last_longCondition > nz(last_long_tp[1]) and not Final_Long_tp
Final_Short_sl := (Normal_short_sl or ATR_short_sl or Both_short_sl) and last_shortCondition > nz(last_short_sl[1]) and last_shortCondition > nz(last_short_tp[1]) and not Final_Short_tp
//Plottin ATR SL
plot(Act_sl and (SL_options != "NORMAL") ? in_longCondition ? ATR_SL_Long[1] : ATR_SL_Short[1] : na, title = "ATR SL", color = color.purple)
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Bollinger Bands Re-entry
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
BB_basis = sma(src, BB_length)
BB_dev = BB_mult * stdev(src, BB_length)
BB_upper = BB_basis + BB_dev
BB_lower = BB_basis - BB_dev
u_BB = plot(Act_BB ? BB_upper : na, title = "Upper Bollinger Band", color = #009688, linewidth = 2)
l_BB = plot(Act_BB ? BB_lower : na, title = "Lower Bollinger Band", color = #f06292, linewidth = 2)
fill(u_BB, l_BB, title = "Bollinger Band Background", color = in_longCondition ? #009688 : #f06292, transp = 95)
// ————— Initial Bollinger Bands conditions
BB_long = Act_BB and in_longCondition and not (DIPlus < DIMinus and ADX > th) and (close <= BB_lower) and (close < last_open_longCondition * (1 - (bbBetterPrice / 100)))
BB_short = Act_BB and in_shortCondition and not (DIPlus > DIMinus and ADX > th) and (close >= BB_upper) and (close > last_open_shortCondition * (1 + (bbBetterPrice / 100)))
// ————— Get the time of the last BB close
last_long_BB := BB_long ? time : nz(last_long_BB[1])
last_short_BB := BB_short ? time : nz(last_short_BB[1])
// ————— Final Bollinger Bands condition for long
Final_long_BB := BB_long and last_Final_longCondition > nz(last_long_BB[1]) and
last_longCondition > nz(last_long_tp[1]) and
last_longCondition > nz(last_long_sl[1]) and not Final_Long_sl
// ————— Final Bollinger Bands condition for short
Final_short_BB := BB_short and last_Final_shortCondition > nz(last_short_BB[1]) and
last_shortCondition > nz(last_short_tp[1]) and
last_shortCondition > nz(last_short_sl[1]) and not Final_Short_sl
// ————— Final confirmed Re-entries on long & short conditions
Final_Long_BB = Final_long_BB[1]
Final_Short_BB = Final_short_BB[1]
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Signal Plotting
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— TP Long Levels
tplLevel = (in_longCondition and
(last_longCondition > nz(last_long_tp[1])) and
(last_longCondition > nz(last_long_sl[1])) and not Final_Long_sl[1]) ?
(nLongs > 1) ?
(fixnan(Position_Price) * (1 + tp_long)) : (last_open_longCondition * (1 + tp_long)) : na
plot(tplLevel, title = "Long TP Level", style = plot.style_circles, color = color.lime, linewidth = 2)
tpsLevel = (in_shortCondition and
(last_shortCondition > nz(last_short_tp[1])) and
(last_shortCondition > nz(last_short_sl[1])) and not Final_Short_sl[1]) ?
(nShorts > 1) ?
(fixnan(Position_Price) * (1 - tp_short)) : (last_open_shortCondition * (1 - tp_short)) : na
plot(tpsLevel, title = "Short TP Level", style = plot.style_circles, color = color.red, linewidth = 2)
// ————— Weekend
W_color = (dayofweek == dayofweek.sunday or dayofweek == dayofweek.saturday) ? color.white : na
bgcolor(W_color, title = "Weekend", transp = 95)
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Re-entry Conditions
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— Re-entry on long after tp, sl or Xlong
if Final_Long_tp or Final_Long_sl
CondIni_long := -1
sum_long := 0.0
nLongs := na
// ————— Re-entry on short after tp, sl or Xshort
if Final_Short_tp or Final_Short_sl
CondIni_short := 1
sum_short := 0.0
nShorts := na
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— Backtest
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ————— Defining new final unconfirmed long conditions
_longCondition = (longCond and not in_longCondition) or
(longCond and Final_Long_tp) or
(longCond and Final_Long_sl) or
(longCond and not longCondition and (last_long_tp >= nz(last_longCondition))) or
(longCond and not longCondition and (last_long_sl >= nz(last_longCondition)))
// ————— Defining new final unconfirmed short conditions
_shortCondition = (shortCond and not in_shortCondition) or
(shortCond and Final_Short_tp) or
(shortCond and Final_Short_sl) or
(shortCond and not shortCondition and (last_short_tp >= nz(last_shortCondition))) or
(shortCond and not shortCondition and (last_short_sl >= nz(last_shortCondition)))
// ————— Test period declaration
testPeriod = time >= timenow - backtest_time
// ————— Volume Factor for determine quantities
Volume_Factor_Leverage = min(Max_Lev, max(1, round(volume / sma(volume, sma_length))))
last_dynamic_Leverage_long := _longCondition ? Volume_Factor_Leverage : nz(last_dynamic_Leverage_long[1])
last_dynamic_Leverage_short := _shortCondition ? Volume_Factor_Leverage : nz(last_dynamic_Leverage_short[1])
// ————— Entering long positions
if (_longCondition)
strategy.entry("long", strategy.long, qty = Volume_Factor_Leverage * quanTity, when = Act_BT and testPeriod)
if (Final_long_BB)
strategy.entry("long", strategy.long, qty = last_dynamic_Leverage_long * quanTity, when = Act_BT and testPeriod)
// ————— Entering short positions
if (_shortCondition)
strategy.entry("short", strategy.short, qty = Volume_Factor_Leverage * quanTity, when = Act_BT and testPeriod)
if (Final_short_BB)
strategy.entry("short", strategy.short, qty = last_dynamic_Leverage_short * quanTity, when = Act_BT and testPeriod)
// ————— Closing positions with first long TP
strategy.exit("Tpl", "long",
profit = (abs((last_open_longCondition * (1 + tp_long)) - last_open_longCondition) / syminfo.mintick),
limit = nLongs >= 1 ? strategy.position_avg_price * (1 + tp_long) : na,
loss = Act_Conf_SL == false ?
(iff(Act_sl and (SL_options == "NORMAL"), (abs((last_open_longCondition*(1-(sl/100)))-last_open_longCondition)/syminfo.mintick),
iff(Act_sl and (SL_options == "ATR"), (abs(ATR_SL_Long-last_open_longCondition)/syminfo.mintick),
iff(Act_sl and (SL_options == "BOTH") and ((abs((last_open_longCondition*(1-(sl/100)))-last_open_longCondition)/syminfo.mintick) <
(abs(ATR_SL_Long-last_open_longCondition)/syminfo.mintick)), (abs((last_open_longCondition*(1-(sl/100)))-last_open_longCondition)/syminfo.mintick),
iff(Act_sl and (SL_options == "BOTH") and ((abs((last_open_longCondition*(1-(sl/100)))-last_open_longCondition)/syminfo.mintick) >
(abs(ATR_SL_Long-last_open_longCondition)/syminfo.mintick)), (abs(ATR_SL_Long-last_open_longCondition)/syminfo.mintick), na))))) : na,
stop = Act_Conf_SL == false and nLongs >= 1 ?
(iff(Act_sl and (SL_options == "NORMAL"), ((1-(sl/100))*strategy.position_avg_price),
iff(Act_sl and (SL_options == "ATR"), ATR_SL_Long,
iff(Act_sl and (SL_options == "BOTH") and (((1-(sl/100))*strategy.position_avg_price) > ATR_SL_Long), ((1-(sl/100))*strategy.position_avg_price),
iff(Act_sl and (SL_options == "BOTH") and (((1-(sl/100))*strategy.position_avg_price) < ATR_SL_Long), ATR_SL_Long, na))))) : na)
// Canceling long exit orders to avoid simultaneity with re-entry
strategy.cancel("Tpl", when = Final_long_BB)
// ————— Closing positions with first short TP
strategy.exit("Tps", "short",
profit = (abs((last_open_shortCondition * (1 - tp_short)) - last_open_shortCondition) / syminfo.mintick),
limit = nShorts >= 1 ? strategy.position_avg_price*(1-(tp_short)) : na,
loss = Act_Conf_SL == false ?
(iff(Act_sl and (SL_options == "NORMAL"), (abs((last_open_shortCondition*(1+(sl/100)))-last_open_shortCondition)/syminfo.mintick),
iff(Act_sl and (SL_options == "ATR"), (abs(ATR_SL_Short-last_open_shortCondition)/syminfo.mintick),
iff(Act_sl and (SL_options == "BOTH") and ((abs((last_open_shortCondition*(1+(sl/100)))-last_open_shortCondition)/syminfo.mintick) <
(abs(ATR_SL_Short-last_open_shortCondition)/syminfo.mintick)), (abs((last_open_shortCondition*(1+(sl/100)))-last_open_shortCondition)/syminfo.mintick),
iff(Act_sl and (SL_options == "BOTH") and ((abs((last_open_shortCondition*(1+(sl/100)))-last_open_shortCondition)/syminfo.mintick) >
(abs(ATR_SL_Short-last_open_shortCondition)/syminfo.mintick)), (abs(ATR_SL_Short-last_open_shortCondition)/syminfo.mintick), na))))) : na,
stop = Act_Conf_SL == false and nShorts >= 1 ?
(iff(Act_sl and (SL_options == "NORMAL"), ((1+(sl/100))*strategy.position_avg_price),
iff(Act_sl and (SL_options == "ATR"), ATR_SL_Short,
iff(Act_sl and (SL_options == "BOTH") and (((1+(sl/100))*strategy.position_avg_price) < ATR_SL_Short), ((1+(sl/100))*strategy.position_avg_price),
iff(Act_sl and (SL_options == "BOTH") and (((1+(sl/100))*strategy.position_avg_price) > ATR_SL_Short), ATR_SL_Short, na))))) : na)
// Canceling short exit orders to avoid simultaneity with re-entry
strategy.cancel("Tps", when = Final_short_BB)
// ————— Closing all positions with Xlong/Xshort
strategy.close_all(when = (Final_Long_sl and Act_Conf_SL) or (Final_Short_sl and Act_Conf_SL))
// -------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- //
// ———————————————————— by Xaviz