
Cette stratégie est une stratégie de percée dynamique plus complexe, combinant plusieurs indicateurs techniques pour juger, réaliser plusieurs entrées en lots dans différentes directions et étapes pour atteindre le but de l’arbitrage.
Cette stratégie consiste principalement à combiner l’indicateur de dynamique MACD, l’indicateur de survente RSI et les bandes de Brent pour un jugement de direction à plusieurs niveaux. Il s’agit d’un signal à plusieurs niveaux lorsque la ligne MACD est supérieure à 0 et que le RSI est inférieur à la ligne de survente.
Dans la mise en œuvre concrète, la stratégie juge d’abord la performance de la ligne MACD et du RSI, confirmant les fondamentaux; puis, en fonction de la percée de la courbe de Boehringer sur la voie et vers le bas, un nombre différent de lots de construction de positions est pris. Dans la phase à plusieurs têtes, il y a une augmentation progressive de la position près de la courbe de Boehringer sur la voie et vers le bas, la marge de prise de position devient de plus en plus grande; dans la phase à tête vide, il y a une augmentation progressive de la vide près de la courbe de Boehringer sur la voie et la quantité de vide est également augmentée progressivement.
En outre, la stratégie combine le suivi des prix les plus élevés et les plus bas pour définir des arrêts et des arrêts de perte et gérer les commandes en conséquence. Dans l’ensemble, la stratégie utilise un large éventail d’outils d’analyse pour obtenir un meilleur rendement grâce à l’arbitrage par lots.
La rupture de la bande de Brin n’est pas un signal de transaction fiable à 100%, il peut y avoir un certain risque de faux signal. Il est possible d’envisager d’ajouter d’autres indicateurs pour la confirmation, tels que la forme de la ligne K, le volume des transactions, etc.
Il est nécessaire de maîtriser avec précision le rythme du marché, ce qui peut entraîner des pertes importantes en cas de redressement rapide. Il est possible de réduire le nombre de prises de position ou de définir un point de stop plus souple.
Il est nécessaire de prêter attention à la liquidité des variétés négociées, les variétés moins liquides ne devraient pas être soumises à un arbitrage en lots plus importants.
Les données de retracement ne sont pas équivalentes à celles du disque dur, les frais de traitement du disque dur, les points de glissement et autres coûts doivent être pris en compte. Il est possible de laisser une marge de manœuvre appropriée pour le stop-loss.
Il est possible de tester différentes combinaisons de paramètres, tels que le cycle de la courbe de Boole, le multiple de l’écart-type, le paramètre RSI, etc., pour trouver le paramètre optimal.
Il est possible d’explorer d’autres méthodes d’arbitrage, telles que les stratégies de gestion de fonds telles que la fraction fixe et le critère de Kelly.
L’optimisation dynamique des paramètres peut être réalisée en combinant des méthodes telles que l’apprentissage automatique.
Des sources de données supplémentaires peuvent être introduites, telles que l’analyse des sentiments textuels, les données sociales, etc., pour aider à juger de la situation du marché.
Il est possible d’explorer la différence temporelle des futures pour les arbitrager et élargir encore plus l’espace de gain.
Cette stratégie utilise une combinaison de plusieurs indicateurs techniques, un arbitrage par lots, un arrêt de perte et un arrêt de gestion des risques. C’est une stratégie de suivi de tendance plus complète. Cependant, il faut être vigilant contre les faux signaux et les risques de redressement rapide.
/*backtest
start: 2022-10-11 00:00:00
end: 2023-10-17 00:00:00
period: 1d
basePeriod: 1h
exchanges: [{"eid":"Futures_Binance","currency":"BTC_USDT"}]
*/
//@version=2
strategy(title="Incremental Order size +", shorttitle="Strategy", overlay=true, default_qty_value=1, pyramiding=10)
//Heiken Ashi
isHA = input(false, "HA Candles", bool)
//MACD
fastLength = 12
slowlength = 26
MACDLength = 9
MACD = ema(close, fastLength) - ema(close, slowlength)
aMACD = ema(MACD, MACDLength)
delta = MACD - aMACD
//Bollinger Bands Exponential
src = open
len = 18
e = ema(src,len)
evar = (src - e)*(src - e)
evar2 = (sum(evar,len))/len
std = sqrt(evar2)
Multiplier = input(3, minval = 0.01, title = "# of STDEV's")
upband = e + (Multiplier * std)
dnband = e - (Multiplier * std)
//EMA
ema3 = ema(close, 3)
//RSIplot
length = 45
overSold = 90
overBought = 10
price = close
vrsi = rsi(price, length)
notna = not na(vrsi)
macdlong = crossover(delta, 0)
macdshort = crossunder(delta, 0)
rsilong = notna and crossover(vrsi, overSold)
rsishort = notna and crossunder(vrsi, overBought)
lentt = input(14, "Pivot Length")
//The length defines how many periods a high or low must hold to be a "relevant pivot"
h = highest(lentt)
//The highest high over the length
h1 = dev(h, lentt) ? na : h
//h1 is a pivot of h if it holds for the full length
hpivot = fixnan(h1)
//creates a series which is equal to the last pivot
l = lowest(lentt)
l1 = dev(l, lentt) ? na : l
lpivot = fixnan(l1)
//repeated for lows
last_hpivot = h1 ? time : nz(last_hpivot[1])
last_lpivot = l1 ? time : nz(last_lpivot[1])
long_time = last_hpivot > last_lpivot ? 0:1
//FIBS
z = input(100, "Z-Index")
p_offset= 2
transp = 60
a=(lowest(z)+highest(z))/2
b=lowest(z)
c=highest(z)
fibonacci = input(0, "Fibonacci") / 100
//Fib Calls
fib0 = (((hpivot - lpivot)* fibonacci) + lpivot)
fib1 = (((hpivot - lpivot)*.21) + lpivot)
fib2 = (((hpivot - lpivot)*.3) + lpivot)
fib3 = (((hpivot - lpivot)*.5) + lpivot)
fib4 = (((hpivot - lpivot)*.62) + lpivot)
fib5 = (((hpivot - lpivot)*.7) + lpivot)
fib6 = (((hpivot - lpivot)* 1.00) + lpivot)
fib7 = (((hpivot - lpivot)* 1.27) + lpivot)
fib8 = (((hpivot - lpivot)* 2) + lpivot)
fib9 = (((hpivot - lpivot)* -.27) + lpivot)
fib10 = (((hpivot - lpivot)* -1) + lpivot)
//Heiken Ashi Candles
data2 = isHA ? heikenashi(syminfo.tickerid) : syminfo.tickerid
res5 = input("5", "Resolution")
//HT Fibs
hfib0 = security(data2, res5, fib0[1])
hfib1 = security(data2, res5, fib1[1])
hfib2 = security(data2, res5, fib2[1])
hfib3 = security(data2, res5, fib3[1])
hfib4 = security(data2, res5, fib4[1])
hfib5 = security(data2, res5, fib5[1])
hfib6 = security(data2, res5, fib6[1])
hfib7 = security(data2, res5, fib7[1])
hfib8 = security(data2, res5, fib8[1])
hfib9 = security(data2, res5, fib9[1])
hfib10 = security(data2, res5, fib10[1])
vrsiup = vrsi > vrsi[1] and vrsi[1] > vrsi[2]
vrsidown = vrsi < vrsi[1] and vrsi[1] < vrsi[2]
long = cross(close, fib0) and delta > 0 and vrsi < overSold and vrsiup
short = cross(close, fib6) and delta < 0 and vrsi > overBought and vrsidown
// long2 = cross(close, fib0) and delta > 0 and vrsi < overSold and vrsiup
// short2 = cross(close, fib6) and delta < 0 and vrsi > overBought and vrsidown
// long = cross(close, fib0) and delta > 0 and vrsi < overSold and vrsiup
// short = cross(close, fib6) and delta < 0 and vrsi > overBought and vrsidown
// long = cross(close, fib0) and delta > 0 and vrsi < overSold and vrsiup
// short = cross(close, fib6) and delta < 0 and vrsi > overBought and vrsidown
// long = cross(close, fib0) and delta > 0 and vrsi < overSold and vrsiup
// short = cross(close, fib6) and delta < 0 and vrsi > overBought and vrsidown
// long = cross(close, fib0) and delta > 0 and vrsi < overSold and vrsiup
// short = cross(close, fib6) and delta < 0 and vrsi > overBought and vrsidown
// long = cross(close, fib0) and delta > 0 and vrsi < overSold and vrsiup
// short = cross(close, fib6) and delta < 0 and vrsi > overBought and vrsidown
// long = cross(close, fib0) and delta > 0 and vrsi < overSold and vrsiup
// short = cross(close, fib6) and delta < 0 and vrsi > overBought and vrsidown
// long = cross(close, fib0) and delta > 0 and vrsi < overSold and vrsiup
// short = cross(close, fib6) and delta < 0 and vrsi > overBought and vrsidown
reverseOpens = input(false, "Reverse Orders", bool)
if (reverseOpens)
tmplong = long
long := short
short := tmplong
//Strategy
ts = input(99999, "TS")
tp = input(30, "TP")
sl = input(10, "SL")
last_long = long ? time : nz(last_long[1])
last_short = short ? time : nz(last_short[1])
in_long = last_long > last_short
in_short = last_short > last_long
long_signal = crossover(last_long, last_short)
short_signal = crossover(last_short, last_long)
last_open_long = long ? open : nz(last_open_long[1])
last_open_short = short ? open : nz(last_open_short[1])
last_open_long_signal = long_signal ? open : nz(last_open_long_signal[1])
last_open_short_signal = short_signal ? open : nz(last_open_short_signal[1])
last_high = not in_long ? na : in_long and (na(last_high[1]) or high > nz(last_high[1])) ? high : nz(last_high[1])
last_low = not in_short ? na : in_short and (na(last_low[1]) or low < nz(last_low[1])) ? low : nz(last_low[1])
long_ts = not na(last_high) and high <= (last_high - ts) and high >= last_open_long_signal
short_ts = not na(last_low) and low >= (last_low + ts) and low <= last_open_short_signal
long_tp = high >= (last_open_long + tp) and long[1] == 0
short_tp = low <= (last_open_short - tp) and short[1] == 0
long_sl = low <= (last_open_long - sl) and long[1] == 0
short_sl = high >= (last_open_short + sl) and short[1] == 0
last_hfib_long = long_signal ? fib1 : nz(last_hfib_long[1])
last_hfib_short = short_signal ? fib5 : nz(last_hfib_short[1])
last_fib7 = long ? fib7 : nz(last_fib7[1])
last_fib10 = long ? fib10 : nz(last_fib10[1])
last_fib8 = short ? fib8 : nz(last_fib8[1])
last_fib9 = short ? fib9 : nz(last_fib9[1])
last_long_signal = long_signal ? time : nz(last_long_signal[1])
last_short_signal = short_signal ? time : nz(last_short_signal[1])
last_long_tp = long_tp ? time : nz(last_long_tp[1])
last_short_tp = short_tp ? time : nz(last_short_tp[1])
last_long_ts = long_ts ? time : nz(last_long_ts[1])
last_short_ts = short_ts ? time : nz(last_short_ts[1])
long_ts_signal = crossover(last_long_ts, last_long_signal)
short_ts_signal = crossover(last_short_ts, last_short_signal)
last_long_sl = long_sl ? time : nz(last_long_sl[1])
last_short_sl = short_sl ? time : nz(last_short_sl[1])
long_tp_signal = crossover(last_long_tp, last_long)
short_tp_signal = crossover(last_short_tp, last_short)
long_sl_signal = crossover(last_long_sl, last_long)
short_sl_signal = crossover(last_short_sl, last_short)
last_long_tp_signal = long_tp_signal ? time : nz(last_long_tp_signal[1])
last_short_tp_signal = short_tp_signal ? time : nz(last_short_tp_signal[1])
last_long_sl_signal = long_sl_signal ? time : nz(last_long_sl_signal[1])
last_short_sl_signal = short_sl_signal ? time : nz(last_short_sl_signal[1])
last_long_ts_signal = long_ts_signal ? time : nz(last_long_ts_signal[1])
last_short_ts_signal = short_ts_signal ? time : nz(last_short_ts_signal[1])
true_long_signal = long_signal and last_long_sl_signal > last_long_signal[1] or long_signal and last_long_tp_signal > last_long_signal[1] or long_signal and last_long_ts_signal > last_long_signal[1]
true_short_signal = short_signal and last_short_sl_signal > last_short_signal[1] or short_signal and last_short_tp_signal > last_short_signal[1] or short_signal and last_short_ts_signal > last_short_signal[1]
// strategy.entry("BLUE", strategy.long, when=long)
// strategy.entry("RED", strategy.short, when=short)
g = delta > 0 and vrsi < overSold and vrsiup
r = delta < 0 and vrsi > overBought and vrsidown
long1 = cross(close, fib1) and g and last_long_signal[1] > last_short_signal// and last_long_signal > long
short1 = cross(close, fib5) and r and last_short_signal[1] > last_long_signal// and last_short_signal > short
last_long1 = long1 ? time : nz(last_long1[1])
last_short1 = short1 ? time : nz(last_short1[1])
last_open_long1 = long1 ? open : nz(last_open_long1[1])
last_open_short1 = short1 ? open : nz(last_open_short1[1])
long1_signal = crossover(last_long1, last_long_signal)
short1_signal = crossover(last_short1, last_short_signal)
last_long1_signal = long1_signal ? time : nz(last_long1_signal[1])
last_short1_signal = short1_signal ? time : nz(last_short1_signal[1])
long2 = cross(close, fib2) and g and last_long1_signal > last_long_signal[1] and long1_signal == 0 and last_long_signal[1] > last_short_signal
short2 = cross(close, fib4) and r and last_short1_signal > last_short_signal[1] and short1_signal == 0 and last_short_signal[1] > last_long_signal
last_long2 = long2 ? time : nz(last_long2[1])
last_short2 = short2 ? time : nz(last_short2[1])
last_open_short2 = short2 ? open : nz(last_open_short2[1])
long2_signal = crossover(last_long2, last_long1_signal) and long1_signal==0
short2_signal = crossover(last_short2, last_short1_signal) and short1_signal==0
last_long2_signal = long2_signal ? time : nz(last_long2_signal[1])
last_short2_signal = short2_signal ? time : nz(last_short2_signal[1])
//Trade 4
long3 = cross(close, fib3) and g and last_long1_signal > last_long_signal[1] and long1_signal == 0 and last_long_signal[1] > last_short_signal
short3 = cross(close, fib3) and r and last_short1_signal > last_short_signal[1] and short1_signal == 0 and last_short_signal[1] > last_long_signal
last_long3 = long3 ? time : nz(last_long3[1])
last_short3 = short3 ? time : nz(last_short3[1])
last_open_short3 = short3 ? open : nz(last_open_short3[1])
long3_signal = crossover(last_long3, last_long2_signal) and long2_signal==0
short3_signal = crossover(last_short3, last_short2_signal) and short2_signal==0
last_long3_signal = long3_signal ? time : nz(last_long3_signal[1])
last_short3_signal = short3_signal ? time : nz(last_short3_signal[1])
//Trade 5
long4 = long and last_long1_signal > last_long_signal[1] and long1_signal == 0 and last_long_signal[1] > last_short_signal
short4 = short and last_short1_signal > last_short_signal[1] and short1_signal == 0 and last_short_signal[1] > last_long_signal
last_long4 = long4 ? time : nz(last_long4[1])
last_short4 = short4 ? time : nz(last_short4[1])
long4_signal = crossover(last_long4, last_long3_signal) and long2_signal==0 and long3_signal==0
short4_signal = crossover(last_short4, last_short3_signal) and short2_signal==0 and short3_signal==0
last_long4_signal = long4_signal ? time : nz(last_long4_signal[1])
last_short4_signal = short4_signal ? time : nz(last_short4_signal[1])
//Trade 6
long5 = long and last_long1_signal > last_long_signal[1] and long1_signal == 0 and last_long_signal[1] > last_short_signal
short5 = short and last_short1_signal > last_short_signal[1] and short1_signal == 0 and last_short_signal[1] > last_long_signal
last_long5 = long5 ? time : nz(last_long5[1])
last_short5 = short5 ? time : nz(last_short5[1])
long5_signal = crossover(last_long5, last_long4_signal) and long3_signal==0 and long4_signal==0
short5_signal = crossover(last_short5, last_short4_signal) and short3_signal==0 and short4_signal==0
last_long5_signal = long5_signal ? time : nz(last_long5_signal[1])
last_short5_signal = short5_signal ? time : nz(last_short5_signal[1])
//Trade 7
long6 = long and last_long1_signal > last_long_signal[1] and long1_signal == 0 and last_long_signal[1] > last_short_signal
short6 = short and last_short1_signal > last_short_signal[1] and short1_signal == 0 and last_short_signal[1] > last_long_signal
last_long6 = long6 ? time : nz(last_long6[1])
last_short6 = short6 ? time : nz(last_short6[1])
long6_signal = crossover(last_long6, last_long5_signal) and long2_signal==0 and long4_signal==0 and long5_signal==0
short6_signal = crossover(last_short6, last_short5_signal) and short2_signal==0 and short4_signal==0 and short5_signal==0
last_long6_signal = long6_signal ? time : nz(last_long6_signal[1])
last_short6_signal = short6_signal ? time : nz(last_short6_signal[1])
//Trade 8
long7 = long and last_long1_signal > last_long_signal[1] and long1_signal == 0 and last_long_signal[1] > last_short_signal
short7 = short and last_short1_signal > last_short_signal[1] and short1_signal == 0 and last_short_signal[1] > last_long_signal
last_long7 = long7 ? time : nz(last_long7[1])
last_short7 = short7 ? time : nz(last_short7[1])
long7_signal = crossover(last_long7, last_long6_signal) and long2_signal==0 and long4_signal==0 and long5_signal==0 and long6_signal==0
short7_signal = crossover(last_short7, last_short6_signal) and short2_signal==0 and short4_signal==0 and short5_signal==0 and short6_signal==0
last_long7_signal = long7_signal ? time : nz(last_long7_signal[1])
last_short7_signal = short7_signal ? time : nz(last_short7_signal[1])
//Trade 9
long8 = long and last_long1_signal > last_long_signal[1] and long1_signal == 0 and last_long_signal[1] > last_short_signal
short8 = short and last_short1_signal > last_short_signal[1] and short1_signal == 0 and last_short_signal[1] > last_long_signal
last_long8 = long8 ? time : nz(last_long8[1])
last_short8 = short8 ? time : nz(last_short8[1])
long8_signal = crossover(last_long8, last_long7_signal) and long2_signal==0 and long4_signal==0 and long5_signal==0 and long6_signal==0 and long7_signal==0
short8_signal = crossover(last_short8, last_short7_signal) and short2_signal==0 and short4_signal==0 and short5_signal==0 and short6_signal==0 and short7_signal==0
last_long8_signal = long8_signal ? time : nz(last_long8_signal[1])
last_short8_signal = short8_signal ? time : nz(last_short8_signal[1])
//Trade 10
long9 = long and last_long1_signal > last_long_signal[1] and long1_signal == 0 and last_long_signal[1] > last_short_signal
short9 = short and last_short1_signal > last_short_signal[1] and short1_signal == 0 and last_short_signal[1] > last_long_signal
last_long9 = long9 ? time : nz(last_long9[1])
last_short9 = short9 ? time : nz(last_short9[1])
long9_signal = crossover(last_long9, last_long8_signal) and long2_signal==0 and long4_signal==0 and long5_signal==0 and long6_signal==0 and long7_signal==0 and long8_signal==0
short9_signal = crossover(last_short9, last_short8_signal) and short2_signal==0 and short4_signal==0 and short5_signal==0 and short6_signal==0 and short7_signal==0 and short8_signal==0
last_long9_signal = long9_signal ? time : nz(last_long9_signal[1])
last_short9_signal = short9_signal ? time : nz(last_short9_signal[1])
strategy.entry("Long", strategy.long, qty=1, when=long_signal)
strategy.entry("Short", strategy.short, qty=1, when=short_signal)
strategy.entry("Long", strategy.long, qty=2, when=long1_signal)
strategy.entry("Short1", strategy.short, qty=2, when=short1_signal)
strategy.entry("Long", strategy.long, qty=4, when=long2_signal)
strategy.entry("Short2", strategy.short, qty=4, when=short2_signal)
strategy.entry("Long", strategy.long, qty=8, when=long3_signal)
strategy.entry("Short3", strategy.short, qty=8, when=short3_signal)
strategy.entry("Long", strategy.long, qty=5, when=long4_signal)
strategy.entry("Short", strategy.short, qty=5, when=short4_signal)
strategy.entry("Long", strategy.long, qty=6, when=long5_signal)
strategy.entry("Short", strategy.short, qty=6, when=short5_signal)
strategy.entry("Long", strategy.long, qty=7, when=long6_signal)
strategy.entry("Short", strategy.short, qty=7, when=short6_signal)
strategy.entry("Long", strategy.long, qty=8, when=long7_signal)
strategy.entry("Short", strategy.short, qty=8, when=short7_signal)
strategy.entry("Long", strategy.long, qty=9, when=long8_signal)
strategy.entry("Short", strategy.short, qty=9, when=short8_signal)
strategy.entry("Long", strategy.long, qty=10, when=long9_signal)
strategy.entry("Short", strategy.short, qty=10, when=short9_signal)
short1_tp = low <= (last_open_short1 - tp) and short1[1] == 0
short2_tp = low <= (last_open_short2 - tp) and short2[1] == 0
short3_tp = low <= (last_open_short3 - tp) and short3[1] == 0
short1_sl = high >= (last_open_short1 + sl) and short1[1] == 0
short2_sl = high >= (last_open_short2 + sl) and short2[1] == 0
short3_sl = high >= (last_open_short3 + sl) and short3[1] == 0
close_long = cross(close, fib6)
close_short = cross(close, fib0)
// strategy.close("Long", when=close_long)
// strategy.close("Long", when=long_tp)
// strategy.close("Long", when=long_sl)
// strategy.close("Short", when=long_signal)
// strategy.close("Short1", when=long_signal)
// strategy.close("Short2", when=long_signal)
// strategy.close("Short3", when=long_signal)
strategy.close("Short", when=short_tp)
strategy.close("Short1", when=short1_tp)
strategy.close("Short2", when=short2_tp)
strategy.close("Short3", when=short3_tp)
strategy.close("Short", when=short_sl)
strategy.close("Short1", when=short1_sl)
strategy.close("Short2", when=short2_sl)
strategy.close("Short3", when=short3_sl)