Stratégie de trading quantitative équilibrée à plusieurs niveaux

MACD RSI EMA
Date de création: 2024-10-14 11:23:45 Dernière modification: 2024-10-14 11:23:45
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Stratégie de trading quantitative équilibrée à plusieurs niveaux

Aperçu

Une stratégie de trading à équilibre multiple est un système de trading complexe qui combine plusieurs indicateurs techniques et niveaux de prix. Elle utilise des indicateurs tels que le MACD, le RSI, l’EMA et les bandes de Brent, combinés à des niveaux de rétractation de Fibonacci, pour adopter différentes stratégies de trading dans différentes fourchettes de prix afin d’obtenir des transactions équilibrées à plusieurs niveaux. L’idée centrale de la stratégie est d’augmenter l’exactitude des transactions par confirmation multiple, tout en optimisant la gestion des fonds en augmentant progressivement le risque.

Principe de stratégie

Les principes de base de cette stratégie sont les suivants:

  1. Utilisez les indicateurs MACD, RSI et EMA pour déterminer la tendance et la dynamique du marché.
  2. Les courbes de Brin et les retraits de Fibonacci sont utilisés pour identifier les points de support et de résistance clés.
  3. La mise en place de plusieurs points d’entrée de transactions à différents niveaux de prix, permettant la construction progressive des positions.
  4. Gérer le risque en définissant différents niveaux de stop-loss et de stop-loss.
  5. Le graphique de Haykanush est utilisé pour fournir des informations supplémentaires sur la structure du marché.

La stratégie consiste à analyser ces facteurs de manière globale et à adopter des comportements de négociation correspondants dans différentes conditions de marché afin de réaliser des gains stables.

Avantages stratégiques

  1. Multiple confirmation: amélioration de la fiabilité des signaux de transaction en combinant plusieurs indicateurs techniques.
  2. Gestion flexible des fonds: une meilleure maîtrise des risques et une utilisation optimale des fonds sont possibles grâce à une approche progressive de l’accumulation des fonds.
  3. Adaptabilité: La stratégie peut adapter son comportement de négociation aux différentes conditions du marché.
  4. Gestion complète des risques: mettre en place des mécanismes de stop-loss et de freinage à plusieurs niveaux pour contrôler efficacement les risques.
  5. Autonomie élevée: La mise en œuvre de la stratégie est entièrement automatisée et réduit l’intervention humaine.

Risque stratégique

  1. Excessive transaction: La stratégie a plusieurs niveaux de transaction, ce qui peut entraîner des transactions fréquentes et augmenter les coûts de transaction.
  2. Sensibilité aux paramètres: La stratégie utilise plusieurs indicateurs et paramètres qui doivent être soigneusement ajustés pour s’adapter à différents environnements de marché.
  3. Risque de retrait: Dans un marché très volatil, il est possible de faire face à un risque de retrait plus élevé.
  4. La dépendance à la technologie: la stratégie est fortement tributaire des indicateurs techniques et peut être inefficace dans certaines conditions de marché.
  5. Risques de gestion des fonds: une approche graduelle de l’hypothèque peut conduire à une surexposition dans certains cas.

Orientation de l’optimisation de la stratégie

  1. Adaptation dynamique des paramètres: l’introduction d’algorithmes d’apprentissage automatique pour ajuster automatiquement les paramètres de la stratégie en fonction des conditions du marché.
  2. Analyse de l’humeur du marché: intégrer des indicateurs de l’humeur du marché, tels que l’indice VIX, pour améliorer l’adaptabilité de la stratégie.
  3. L’analyse des périodes multiples: l’introduction de l’analyse des périodes multiples pour améliorer la fiabilité des signaux de négociation.
  4. Adaptation de la volatilité: le volume des transactions et le niveau de stop-loss sont ajustés en fonction de la dynamique de la volatilité du marché.
  5. Optimisation des coûts de transaction: introduire des modèles de coûts de transaction pour optimiser la fréquence et la taille des transactions.

Résumer

La stratégie de trading quantifiée à plusieurs niveaux est un système de trading robuste et adaptable. En combinant plusieurs indicateurs techniques et niveaux de prix, la stratégie est capable de maintenir la stabilité dans différents environnements de marché. Bien que certains risques existent, ils peuvent être efficacement contrôlés par une optimisation et une adaptation continues.

Code source de la stratégie
/*backtest
start: 2019-12-23 08:00:00
end: 2024-10-12 08:00:00
period: 1d
basePeriod: 1d
exchanges: [{"eid":"Futures_Binance","currency":"BTC_USDT"}]
*/

//@version=5
strategy(title='Incremental Order size +', shorttitle='TradingPost', overlay=true, default_qty_value=1, pyramiding=10)

//Heiken Ashi
isHA = input(false, 'HA Candles')

//MACD
fastLength = 12
slowlength = 26
MACDLength = 9

MACD = ta.ema(close, fastLength) - ta.ema(close, slowlength)
aMACD = ta.ema(MACD, MACDLength)
delta = MACD - aMACD

//Bollinger Bands Exponential
src = open
len = 18
e = ta.ema(src, len)
evar = (src - e) * (src - e)
evar2 = math.sum(evar, len) / len
std = math.sqrt(evar2)
Multiplier = input.float(3, minval=0.01, title='# of STDEV\'s')
upband = e + Multiplier * std
dnband = e - Multiplier * std

//EMA
ema3 = ta.ema(close, 3)

//RSIplot
length = 45
overSold = 90
overBought = 10
price = close

vrsi = ta.rsi(price, length)

notna = not na(vrsi)

macdlong = ta.crossover(delta, 0)
macdshort = ta.crossunder(delta, 0)
rsilong = notna and ta.crossover(vrsi, overSold)
rsishort = notna and ta.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 = ta.highest(lentt)
    //The highest high over the length
h1 = ta.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 = ta.lowest(lentt)
l1 = ta.dev(l, lentt) ? na : l
lpivot = fixnan(l1)
    //repeated for lows

last_hpivot = 0.0
last_lpivot = 0.0
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 = (ta.lowest(z) + ta.highest(z)) / 2
b = ta.lowest(z)
c = ta.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

heikenashi_1 = ticker.heikinashi(syminfo.tickerid)
data2 = isHA ? heikenashi_1 : syminfo.tickerid
res5 = input.timeframe('5', 'Resolution')

//HT Fibs

hfib0 = request.security(data2, res5, fib0[1])
hfib1 = request.security(data2, res5, fib1[1])
hfib2 = request.security(data2, res5, fib2[1])
hfib3 = request.security(data2, res5, fib3[1])
hfib4 = request.security(data2, res5, fib4[1])
hfib5 = request.security(data2, res5, fib5[1])
hfib6 = request.security(data2, res5, fib6[1])
hfib7 = request.security(data2, res5, fib7[1])
hfib8 = request.security(data2, res5, fib8[1])
hfib9 = request.security(data2, res5, fib9[1])
hfib10 = request.security(data2, res5, fib10[1])

vrsiup = vrsi > vrsi[1] and vrsi[1] > vrsi[2]
vrsidown = vrsi < vrsi[1] and vrsi[1] < vrsi[2]

long = ta.cross(close, fib0) and delta > 0 and vrsi < overSold and vrsiup
short = ta.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')
if reverseOpens
    tmplong = long
    long := short
    short := tmplong
    short

//Strategy
ts = input(99999, 'TS')
tp = input(30, 'TP')
sl = input(15, 'SL')

last_long = 0.0
last_short = 0.0
last_long := long ? time : nz(last_long)
last_short := short ? time : nz(last_short)

in_long = last_long > last_short
in_short = last_short > last_long

long_signal = ta.crossover(last_long, last_short)
short_signal = ta.crossover(last_short, last_long)

last_open_long = 0.0
last_open_short = 0.0
last_open_long := long ? open : nz(last_open_long[1])
last_open_short := short ? open : nz(last_open_short[1])

last_open_long_signal = 0.0
last_open_short_signal = 0.0
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 = 0.0
last_low = 0.0
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 = 0.0
last_hfib_short = 0.0
last_hfib_long := long_signal ? fib1 : nz(last_hfib_long[1])
last_hfib_short := short_signal ? fib5 : nz(last_hfib_short[1])

last_fib7 = 0.0
last_fib10 = 0.0
last_fib7 := long ? fib7 : nz(last_fib7[1])
last_fib10 := long ? fib10 : nz(last_fib10[1])

last_fib8 = 0.0
last_fib9 = 0.0
last_fib8 := short ? fib8 : nz(last_fib8[1])
last_fib9 := short ? fib9 : nz(last_fib9[1])

last_long_signal = 0.0
last_short_signal = 0.0
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 = 0.0
last_short_tp = 0.0
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 = 0.0
last_short_ts = 0.0
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 = ta.crossover(last_long_ts, last_long_signal)
short_ts_signal = ta.crossover(last_short_ts, last_short_signal)

last_long_sl = 0.0
last_short_sl = 0.0
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 = ta.crossover(last_long_tp, last_long)
short_tp_signal = ta.crossover(last_short_tp, last_short)

long_sl_signal = ta.crossover(last_long_sl, last_long)
short_sl_signal = ta.crossover(last_short_sl, last_short)

last_long_tp_signal = 0.0
last_short_tp_signal = 0.0
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 = 0.0
last_short_sl_signal = 0.0
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 = 0.0
last_short_ts_signal = 0.0
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 = ta.cross(close, fib1) and g and last_long_signal[1] > last_short_signal  // and last_long_signal > long
short1 = ta.cross(close, fib5) and r and last_short_signal[1] > last_long_signal  // and last_short_signal > short

last_long1 = 0.0
last_short1 = 0.0
last_long1 := long1 ? time : nz(last_long1[1])
last_short1 := short1 ? time : nz(last_short1[1])

last_open_long1 = 0.0
last_open_short1 = 0.0
last_open_long1 := long1 ? open : nz(last_open_long1[1])
last_open_short1 := short1 ? open : nz(last_open_short1[1])

long1_signal = ta.crossover(last_long1, last_long_signal)
short1_signal = ta.crossover(last_short1, last_short_signal)

last_long1_signal = 0.0
last_short1_signal = 0.0
last_long1_signal := long1_signal ? time : nz(last_long1_signal[1])
last_short1_signal := short1_signal ? time : nz(last_short1_signal[1])

long2 = ta.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 = ta.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 = 0.0
last_short2 = 0.0
last_long2 := long2 ? time : nz(last_long2[1])
last_short2 := short2 ? time : nz(last_short2[1])

last_open_short2 = 0.0
last_open_short2 := short2 ? open : nz(last_open_short2[1])

long2_signal = ta.crossover(last_long2, last_long1_signal) and long1_signal == 0
short2_signal = ta.crossover(last_short2, last_short1_signal) and short1_signal == 0

last_long2_signal = 0.0
last_short2_signal = 0.0
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 = ta.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 = ta.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 = 0.0
last_short3 = 0.0
last_long3 := long3 ? time : nz(last_long3[1])
last_short3 := short3 ? time : nz(last_short3[1])

last_open_short3 = 0.0
last_open_short3 := short3 ? open : nz(last_open_short3[1])

long3_signal = ta.crossover(last_long3, last_long2_signal) and long2_signal == 0
short3_signal = ta.crossover(last_short3, last_short2_signal) and short2_signal == 0

last_long3_signal = 0.0
last_short3_signal = 0.0
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 = 0.0
last_short4 = 0.0
last_long4 := long4 ? time : nz(last_long4[1])
last_short4 := short4 ? time : nz(last_short4[1])

long4_signal = ta.crossover(last_long4, last_long3_signal) and long2_signal == 0 and long3_signal == 0
short4_signal = ta.crossover(last_short4, last_short3_signal) and short2_signal == 0 and short3_signal == 0
last_long4_signal = 0.0
last_short4_signal = 0.0
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 = 0.0
last_short5 = 0.0
last_long5 := long5 ? time : nz(last_long5[1])
last_short5 := short5 ? time : nz(last_short5[1])

long5_signal = ta.crossover(last_long5, last_long4_signal) and long3_signal == 0 and long4_signal == 0
short5_signal = ta.crossover(last_short5, last_short4_signal) and short3_signal == 0 and short4_signal == 0

last_long5_signal = 0.0
last_short5_signal = 0.0
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 = 0.0
last_short6 = 0.0
last_long6 := long6 ? time : nz(last_long6[1])
last_short6 := short6 ? time : nz(last_short6[1])

long6_signal = ta.crossover(last_long6, last_long5_signal) and long2_signal == 0 and long4_signal == 0 and long5_signal == 0
short6_signal = ta.crossover(last_short6, last_short5_signal) and short2_signal == 0 and short4_signal == 0 and short5_signal == 0

last_long6_signal = 0.0
last_short6_signal = 0.0
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 = 0.0
last_short7 = 0.0
last_long7 := long7 ? time : nz(last_long7[1])
last_short7 := short7 ? time : nz(last_short7[1])

long7_signal = ta.crossover(last_long7, last_long6_signal) and long2_signal == 0 and long4_signal == 0 and long5_signal == 0 and long6_signal == 0
short7_signal = ta.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 = 0.0
last_short7_signal = 0.0
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 = 0.0
last_short8 = 0.0
last_long8 := long8 ? time : nz(last_long8[1])
last_short8 := short8 ? time : nz(last_short8[1])

long8_signal = ta.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 = ta.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 = 0.0
last_short8_signal = 0.0
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 = 0.0
last_short9 = 0.0
last_long9 := long9 ? time : nz(last_long9[1])
last_short9 := short9 ? time : nz(last_short9[1])

long9_signal = ta.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 = ta.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 = 0.0
last_short9_signal = 0.0
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 = ta.cross(close, fib6)
close_short = ta.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)