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Estrategia de dirección de múltiples barras

El autor:¿ Qué pasa?, Fecha: 2023-10-18 12:20:59
Las etiquetas:

Resumen general

La estrategia de Dirección de múltiples barras identifica señales de inversión de tendencia calculando la probabilidad de que varias barras se muevan en la misma dirección.

Estrategia lógica

La estrategia establece primero la hora de inicio y final para la extracción de datos históricos. Las horas de negociación se configuran para identificar velas calificadas. Calcula la probabilidad de subidas o bajadas consecutivas dentro de 2 a 7 velas. Las señales de negociación se generan cuando la relación de subidas o bajadas excede un umbral.

Por ejemplo, si la probabilidad de tendencia bajista en 3 velas es inferior al 50%, las 3 velas actuales cumplen con la condición y se genera una señal de compra.

La lógica específica es la siguiente:

Establecer el intervalo de tiempo de las pruebas de retroceso, incluida la fecha de inicio, la fecha de finalización y las horas de negociación.
Cuenta el número de subidas o bajadas de la misma dirección dentro de 2 a 7 candelabros.
Calcular la probabilidad de continuación de arriba o abajo entre los candelabros adyacentes.
Si la probabilidad es inferior al 50%, las velas actuales coinciden con el patrón de inversión.
Generar señales de compra o venta durante las horas de negociación.
Prueba para validar la estrategia.

Ventajas

Evite señales falsas considerando las probabilidades de múltiples candelabros.
Contigo de barras personalizable para identificar señales de reversión en diferentes marcos de tiempo.
Las horas de negociación claras evitan señales inoportunas.
Display de estadísticas intuitivas para la evaluación del rendimiento.
Muchos parámetros optimizables adecuados para diferentes mercados.

Los riesgos

El conteo de barras no puede determinar completamente los puntos de reversión de tendencia.
La larga duración de las estadísticas puede perder oportunidades comerciales a corto plazo.
El umbral estático se ve afectado por la volatilidad del mercado, por lo que es necesario un ajuste dinámico.
La selección de un período de prueba posterior puede provocar un sobreajuste.

Soluciones posibles:

Optimice el número de barras para diferentes marcos de tiempo.
Incorporar otros indicadores.
Adoptar umbrales dinámicos basados en la volatilidad del mercado.
Ampliar el período de backtest y ejecutar múltiples backtests.

Direcciones de optimización

La estrategia se puede optimizar en los siguientes aspectos:

Optimice el número de barras de 2 a 10 y seleccione el parámetro óptimo.
Umbral de reversión de las pruebas del 40% al 60% teniendo en cuenta los cambios del mercado.
Añadir stop loss después de la generación de la señal para limitar el riesgo.
Incorporar otros indicadores como RSI para validar las señales.
Agregue más productos como futuros y divisas para pruebas de parámetros.
Ajuste incremental de parámetros para encontrar combinaciones óptimas.
Aplicar modelos de aprendizaje automático para encontrar parámetros óptimos automáticamente.

Conclusión

La estrategia de Dirección Multi-Bar identifica potenciales señales de reversión mediante el análisis estadístico de las probabilidades de las velas. Pero el rendimiento depende del ajuste de parámetros basado en optimizaciones suficientes. Además, las señales de reversión tienen riesgos de error de juicio y necesitan validación. En general, esta es una estrategia estadística simple y efectiva que vale la pena para una mayor investigación y optimización.

/*backtest
start: 2023-10-16 00:00:00
end: 2023-10-17 00:00:00
period: 5m
basePeriod: 1m
exchanges: [{"eid":"Futures_Binance","currency":"BTC_USDT"}]
*/

// BO - Bar's direction Signal - Backtesting
//anch.v43
// © inno14
//@version=4

strategy("BO - Bar's direction Signal - Backtesting", pyramiding=15)
// === INPUT PERIOD OF TIME ===
Date   = input(true, title = "=== Periods Counting ===")
FromDay   = input(defval = 1, title = "From Day", minval = 1, maxval = 31)
FromMonth = input(defval = 1, title = "From Month", minval = 1, maxval = 12)
FromYear  = input(defval = 2020, title = "From Year", minval = 2017)

ToDay     = input(defval = 1, title = "To Day", minval = 1, maxval = 31)
ToMonth   = input(defval = 1, title = "To Month", minval = 1, maxval = 12)
ToYear    = input(defval = 9999, title = "To Year", minval = 2017)

// === DATE RANGE ===
start     = timestamp(FromYear, FromMonth, FromDay, 00, 00)  // backtest start window
finish    = timestamp(ToYear, ToMonth, ToDay, 23, 59)        // backtest finish window
window()  => time >= start and time <= finish ? true : false // create function "within window of time"

// === Trading Time ===
CTimeDvM   = input(true, title = "=== Trading Time ===")
Time_zone = input(7,title="Time Zone")
FromHourDvM   = input(defval = 05, title = "From Hour", minval = 00, maxval = 23)
FromMinuteDvM = input(defval = 00, title = "From Minute", minval = 00, maxval = 59)
ToHourDvM   = input(defval = 04, title = "To Hour", minval = 00, maxval = 23)
ToMinuteDvM = input(defval = 59, title = "To Minute", minval = 00, maxval = 59)

GMT_FHDvM=FromHourDvM<Time_zone?FromHourDvM-Time_zone+24:FromHourDvM-Time_zone
GMT_THDvM=ToHourDvM<Time_zone?ToHourDvM-Time_zone+24:ToHourDvM-Time_zone
fhDvM= (GMT_FHDvM<10?"0"+tostring(GMT_FHDvM):tostring(GMT_FHDvM))
fmDvM= (FromMinuteDvM<10?"0"+tostring(FromMinuteDvM):tostring(FromMinuteDvM))
thDvM= (GMT_THDvM<10?"0"+tostring(GMT_THDvM):tostring(GMT_THDvM))
tmDvM= (ToMinuteDvM<10?"0"+tostring(ToMinuteDvM):tostring(ToMinuteDvM))
WorkingHourDvM = fhDvM+fmDvM+"-"+thDvM+tmDvM
t0_DvM = time(timeframe.period, WorkingHourDvM)
htrtime = input(true,title="Highlight Tradingtime")
bgcolor(htrtime? t0_DvM? color.gray : na:na, title="Trading Time", transp=90)

// === Date Backtesting ===
Date1   = input(true, title = "=== Date Backtesting ===")
FromDay1   = input(defval = 1, title = "From Day", minval = 1, maxval = 31)
FromMonth1 = input(defval = 1, title = "From Month", minval = 1, maxval = 12)
FromYear1  = input(defval = 2020, title = "From Year", minval = 2017)

ToDay1     = input(defval = 1, title = "To Day", minval = 1, maxval = 31)
ToMonth1   = input(defval = 1, title = "To Month", minval = 1, maxval = 12)
ToYear1    = input(defval = 9999, title = "To Year", minval = 2017)

// === DATE RANGE ===
start1     = timestamp(FromYear1, FromMonth1, FromDay1, 00, 00)  // backtest start window
finish1    = timestamp(ToYear1, ToMonth1, ToDay1, 23, 59)        // backtest finish window
window1()  => time >= start1 and time <= finish1 ? true : false // create function "within window of time"

// === Setup ===
Setup   = input(true, title = "=== Setup Options ===")
set1 = input(true, title = "Reversal after 2 bars same direction")
set2 = input(true, title = "Reversal after 3 bars same direction")
set3 = input(true, title = "Reversal after 4 bars same direction")
set4 = input(true, title = "Reversal after 5 bars same direction")
set5 = input(true, title = "Reversal after 6 bars same direction")


// Calculate hours, minutes, and seconds till close
timeLeft = barstate.isrealtime ?
     (time_close - timenow) / 1000 :
     na

minutesLeft = floor((timeLeft % 3600) / 60)
secondsLeft = timeLeft % 60
// truncate() truncates a given number
// to a certain number of decimals
truncate(number, decimals) =>
    factor = pow(10, decimals)
    int(number * factor) / factor
//count 2
redv2=window()?1:0
bluev2=window()?1:0
mchange2 = close[0]<open[0] and close[1]<open[1] and t0_DvM?-1:0
pchange2 = close[0]>open[0] and close[1]>open[1] and t0_DvM?1:0
blue2 = cum(pchange2 > 0 ? bluev2 : 0 * bluev2)
red2 = cum(mchange2 < 0 ? redv2 : 0 * redv2)

//count 3
redv3=window()?1:0
bluev3=window()?1:0
mchange3 = close[0]<open[0] and close[1]<open[1] and close[2]<open[2] and t0_DvM?-1:0
pchange3 = close[0]>open[0] and close[1]>open[1] and close[2]>open[2] and t0_DvM?1:0
blue3 = cum(pchange3 > 0 ? bluev3 : 0 * bluev3)
red3 = cum(mchange3 < 0 ? redv3 : 0 * redv3)

//count 4
redv4=window()?1:0
bluev4=window()?1:0
mchange4 = close[0]<open[0] and close[1]<open[1] and close[2]<open[2] and close[3]<open[3] and t0_DvM?-1:0
pchange4 = close[0]>open[0] and close[1]>open[1] and close[2]>open[2] and close[3]>open[3] and t0_DvM?1:0
blue4 = cum(pchange4 > 0 ? bluev4 : 0 * bluev4)
red4 = cum(mchange4 < 0 ? redv4 : 0 * redv4)

//count 5
redv5=window()?1:0
bluev5=window()?1:0
mchange5 = close[0]<open[0] and close[1]<open[1] and close[2]<open[2] and close[3]<open[3] and close[4]<open[4] and t0_DvM?-1:0
pchange5 = close[0]>open[0] and close[1]>open[1] and close[2]>open[2] and close[3]>open[3] and close[4]>open[4] and t0_DvM?1:0
blue5 = cum(pchange5 > 0 ? bluev5 : 0 * bluev5)
red5 = cum(mchange5 < 0 ? redv5 : 0 * redv5)

//count 6
redv6=window()?1:0
bluev6=window()?1:0
mchange6 = close[0]<open[0] and close[1]<open[1] and close[2]<open[2] and close[3]<open[3] and close[4]<open[4] and close[5]<open[5] and t0_DvM?-1:0
pchange6 = close[0]>open[0] and close[1]>open[1] and close[2]>open[2] and close[3]>open[3] and close[4]>open[4] and close[5]>open[5] and t0_DvM?1:0
blue6 = cum(pchange6 > 0 ? bluev6 : 0 * bluev6)
red6 = cum(mchange6 < 0 ? redv6 : 0 * redv6)

//count 7
redv7=window()?1:0
bluev7=window()?1:0
mchange7 = close[0]<open[0] and close[1]<open[1] and close[2]<open[2] and close[3]<open[3] and close[4]<open[4] and close[5]<open[5] and close[6]<open[6] and t0_DvM?-1:0
pchange7 = close[0]>open[0] and close[1]>open[1] and close[2]>open[2] and close[3]>open[3] and close[4]>open[4] and close[5]>open[5] and close[6]>open[6] and t0_DvM?1:0
blue7 = cum(pchange7 > 0 ? bluev7 : 0 * bluev7)
red7 = cum(mchange7 < 0 ? redv7 : 0 * redv7)

//Percent 3rd bar has same direction
pred3=(red3/red2)*100
pblue3=(blue3/blue2)*100

//2->3
p23_blue_xloc=0
p23_red_xloc=2
p23_lable_xloc=round((p23_blue_xloc+p23_red_xloc)/2)
p23_label_yloc=1.0*100
blue2_100=100
red2_100=100

plot(blue2_100, style=plot.style_columns, offset=p23_blue_xloc, color=color.blue, transp=60, show_last=1)
plot(red2_100, style=plot.style_columns, offset=-p23_red_xloc, color=color.red, transp=60, show_last=1)
plot(pblue3, style=plot.style_columns, offset=p23_blue_xloc, color=color.blue, transp=40, show_last=1)
plot(pred3, style=plot.style_columns, offset=-p23_red_xloc, color=color.red, transp=40, show_last=1)
// label_pred_23=label.new(bar_index[p23_red_xloc],pred3,style=label.style_none,text=tostring(truncate(pred3,2))+"%")
// label.delete(label_pred_23[1])
//label_2dn=label.new(bar_index[p23_red_xloc],red2,style=label.style_none,text="2 bars downward: "+tostring(red2))
//label.delete(label_2dn[1])
// label_pblue_23=label.new(bar_index[p23_blue_xloc],pblue3,style=label.style_none,text=tostring(truncate(pblue3,2))+"%")
// label.delete(label_pblue_23[1])
//label_2up=label.new(bar_index[p23_blue_xloc],blue2,style=label.style_none,text="2 bars upward: "+tostring(blue2))
//label.delete(label_2up[1])
// label_23=label.new(bar_index[p23_lable_xloc],p23_label_yloc,style=label.style_labeldown,text="3 bars same direction", color=color.orange)
// label.delete(label_23[1])

//Percent 4th bar has same direction
pred4=(red4/red3)*100
pblue4=(blue4/blue3)*100

//3->4
p34_blue_xloc=4
p34_red_xloc=6
p34_lable_xloc=round((p34_blue_xloc+p34_red_xloc)/2)
p34_label_yloc=1.0*100
blue3_100=100
red3_100=100

plot(blue3_100, style=plot.style_columns, offset=-p34_blue_xloc, color=color.blue, transp=60, show_last=1)
plot(red3_100, style=plot.style_columns, offset=-p34_red_xloc, color=color.red, transp=60, show_last=1)
plot(pblue4, style=plot.style_columns, offset=-p34_blue_xloc, color=color.blue, transp=40, show_last=1)
plot(pred4, style=plot.style_columns, offset=-p34_red_xloc, color=color.red, transp=40, show_last=1)
// label_pred_34=label.new(bar_index[p34_red_xloc],pred4,style=label.style_none,text=tostring(truncate(pred4,2))+"%")
// label.delete(label_pred_34[1])
// //label_3dn=label.new(bar_index[p34_red_xloc],red3,style=label.style_none,text="3 bars downward: "+tostring(red3))
// //label.delete(label_3dn[1])
// label_pblue_34=label.new(bar_index[p34_blue_xloc],pblue4,style=label.style_none,text=tostring(truncate(pblue4,2))+"%")
// label.delete(label_pblue_34[1])
// //label_3up=label.new(bar_index[p34_blue_xloc],blue3,style=label.style_none,text="3 bars upward: "+tostring(blue3))
// //label.delete(label_3up[1])
// label_34=label.new(bar_index[p34_lable_xloc],p34_label_yloc,style=label.style_labeldown,text="4 bars same direction", color=color.orange)
// label.delete(label_34[1])

//Percent 5th bar has same direction
pred5=(red5/red4)*100
pblue5=(blue5/blue4)*100

//4->5
p45_blue_xloc=8
p45_red_xloc=10
p45_lable_xloc=round((p45_blue_xloc+p45_red_xloc)/2)
p45_label_yloc=1.0*100
blue4_100=100
red4_100=100

plot(blue4_100, style=plot.style_columns, offset=-p45_blue_xloc, color=color.blue, transp=60, show_last=1)
plot(red4_100, style=plot.style_columns, offset=-p45_red_xloc, color=color.red, transp=60, show_last=1)
plot(pblue5, style=plot.style_columns, offset=-p45_blue_xloc, color=color.blue, transp=40, show_last=1)
plot(pred5, style=plot.style_columns, offset=-p45_red_xloc, color=color.red, transp=40, show_last=1)
// label_pred_45=label.new(bar_index[p45_red_xloc],pred5,style=label.style_none,text=tostring(truncate(pred5,2))+"%")
// label.delete(label_pred_45[1])
// //label_4dn=label.new(bar_index[p45_red_xloc],red4,style=label.style_none,text="4 bars downward: "+tostring(red4))
// //label.delete(label_4dn[1])
// label_pblue_45=label.new(bar_index[p45_blue_xloc],pblue5,style=label.style_none,text=tostring(truncate(pblue5,2))+"%")
// label.delete(label_pblue_45[1])
// //label_4up=label.new(bar_index[p45_blue_xloc],blue4,style=label.style_none,text="4 bars upward: "+tostring(blue4))
// //label.delete(label_4up[1])
// label_45=label.new(bar_index[p45_lable_xloc],p45_label_yloc,style=label.style_labeldown,text="5 bars same direction", color=color.orange)
// label.delete(label_45[1])

//Percent 6th bar has same direction
pred6=(red6/red5)*100
pblue6=(blue6/blue5)*100

//5->6
p56_blue_xloc=12
p56_red_xloc=14
p56_lable_xloc=round((p56_blue_xloc+p56_red_xloc)/2)
p56_label_yloc=1.0*100
blue5_100=100
red5_100=100

plot(blue5_100, style=plot.style_columns, offset=-p56_blue_xloc, color=color.blue, transp=60, show_last=1)
plot(red5_100, style=plot.style_columns, offset=-p56_red_xloc, color=color.red, transp=60, show_last=1)
plot(pblue6, style=plot.style_columns, offset=-p56_blue_xloc, color=color.blue, transp=40, show_last=1)
plot(pred6, style=plot.style_columns, offset=-p56_red_xloc, color=color.red, transp=40, show_last=1)
// label_pred_56=label.new(bar_index[p56_red_xloc],pred6,style=label.style_none,text=tostring(truncate(pred6,2))+"%")
// label.delete(label_pred_56[1])
// //label_5dn=label.new(bar_index[p56_red_xloc],red5,style=label.style_none,text="5 bars downward: "+tostring(red5))
// //label.delete(label_5dn[1])
// label_pblue_56=label.new(bar_index[p56_blue_xloc],pblue6,style=label.style_none,text=tostring(truncate(pblue6,2))+"%")
// label.delete(label_pblue_56[1])
// //label_5up=label.new(bar_index[p56_blue_xloc],blue5,style=label.style_none,text="5 bars upward: "+tostring(blue5))
// //label.delete(label_5up[1])
// label_56=label.new(bar_index[p56_lable_xloc],p56_label_yloc,style=label.style_labeldown,text="6 bars same direction", color=color.orange)
// label.delete(label_56[1])

//Percent 7th bar has same direction
pred7=(red7/red6)*100
pblue7=(blue7/blue6)*100

//6->7
p67_blue_xloc=16
p67_red_xloc=18
p67_lable_xloc=round((p67_blue_xloc+p67_red_xloc)/2)
p67_label_yloc=1.0*100
blue6_100=100
red6_100=100

plot(blue6_100, style=plot.style_columns, offset=-p67_blue_xloc, color=color.blue, transp=60, show_last=1)
plot(red6_100, style=plot.style_columns, offset=-p67_red_xloc, color=color.red, transp=60, show_last=1)
plot(pblue7, style=plot.style_columns, offset=-p67_blue_xloc, color=color.blue, transp=40, show_last=1)
plot(pred7, style=plot.style_columns, offset=-p67_red_xloc, color=color.red, transp=40, show_last=1)
// label_pred_67=label.new(bar_index[p67_red_xloc],pred7,style=label.style_none,text=tostring(truncate(pred7,2))+"%")
// label.delete(label_pred_67[1])
// //label_6dn=label.new(bar_index[p67_red_xloc],red6,style=label.style_none,text="6 bars downward: "+tostring(red6))
// //label.delete(label_6dn[1])
// label_pblue_67=label.new(bar_index[p67_blue_xloc],pblue7,style=label.style_none,text=tostring(truncate(pblue7,2))+"%")
// label.delete(label_pblue_67[1])
// //label_6up=label.new(bar_index[p67_blue_xloc],blue6,style=label.style_none,text="6 bars upward: "+tostring(blue6))
// //label.delete(label_6up[1])
// label_67=label.new(bar_index[p67_lable_xloc],p67_label_yloc,style=label.style_labeldown,text="7 bars same direction", color=color.orange)
// label.delete(label_67[1])

//Plot Time Label
time_label_yloc=1.4*100
time_lable_xloc=round((p67_red_xloc+p23_blue_xloc)/2)
time_label_text="Bar's Direction Info From: "+tostring(FromDay)+"/"+tostring(FromMonth)+"/"+tostring(FromYear)+" To: "+tostring(ToDay)+"/"+tostring(ToMonth)+"/"+tostring(ToYear)
// label_time=label.new(bar_index[time_lable_xloc],time_label_yloc,style=label.style_none,text=time_label_text, color=color.aqua)
// label.delete(label_time[1])

//Signal
//Put signal
x1=
       pblue3<50?blue2[0]>blue2[1] and blue3[0]==blue3[1]:false
x2=
       pblue4<50?blue3[0]>blue3[1] and blue4[0]==blue4[1]:false
x3=
       pblue5<50?blue4[0]>blue4[1] and blue5[0]==blue5[1]:false
x4=
       pblue6<50?blue5[0]>blue5[1] and blue6[0]==blue6[1]:false
x5=
       pblue7<50?blue6[0]>blue6[1] and blue7[0]==blue7[1]:false

//Call signal
y1=
       pred3<50?red2[0]>red2[1] and red3[0]==red3[1]:false
y2=
       pred4<50?red3[0]>red3[1] and red4[0]==red4[1]:false
y3=
       pred5<50?red4[0]>red4[1] and red5[0]==red5[1]:false
y4=
       pred6<50?red5[0]>red5[1] and red6[0]==red6[1]:false
y5=
       pred7<50?red6[0]>red6[1] and red7[0]==red7[1]:false

//Function
xTech=
       set1?x1:false
       or set2?x2:false
       or set3?x3:false
       or set4?x4:false
       or set5?x5:false
       

yTech=
       set1?y1:false
       or set2?y2:false
       or set3?y3:false
       or set4?y4:false
       or set5?y5:false
       

//Plot Analyzing Signals
hline1=hline(-100)
hline2=hline(-1.6*100)
hline0=hline(0)
sigtext=xTech?"Put signal":yTech?"Call signal":"Analyzing Signals - Bar's Time left:"+tostring(minutesLeft)+":"+tostring(secondsLeft)
sig_col=xTech?color.new(color.red,0):yTech?color.new(color.blue,0):color.new(color.navy,0)
// label_sig_text = label.new(bar_index[0], -1.5*100, text=sigtext, style=label.style_none, textcolor=sig_col, size=size.large)
// label.delete(label_sig_text[1])

//plot Signal

putcol = xTech? color.red : na
callcol = yTech? color.blue : na
PutSignal= xTech and window1() and t0_DvM?-100:na
CallSignal= yTech and window1() and t0_DvM?-100:na

plot(PutSignal, title='Put Signal', style=plot.style_columns, color=color.red, offset=1, transp=0)
plot(CallSignal, title='Call Signal', style=plot.style_columns, color=color.blue, offset=1, transp=0)
plotshape(PutSignal, title='Put', text="Put", style=shape.labeldown, location=location.bottom, color=color.orange, textcolor=color.black, offset=1, transp=0)
plotshape(CallSignal, title='Call', text="Call", style=shape.labelup, location=location.bottom, color=color.orange, textcolor=color.black, offset=1, transp=0)

//Backtesting
strategy.entry("Call", strategy.long, when=yTech and window1() and t0_DvM)
strategy.entry("Put", strategy.short, when=xTech and window1() and t0_DvM)
strategy.close_all(when=barstate.isnew)
//EOF

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