The dynamic average cost DCA compound strategy dynamically adjusts the quantity of each opening position. At the beginning of the trend, it first opens small positions to build a position. As the depth of consolidation increases, it gradually increases the position size. The strategy uses exponential functions to calculate stop loss price levels, and re-opens new batches when triggered, which can cause the cost of holding positions to continue to decline exponentially. As the depth increases, the cost of the positions can be gradually reduced. When the price reverses, the batch profit taking allows for greater returns.
This strategy uses a simple combination of RSI oversold signals and moving averages timing to determine entry opportunities. A first entry order is submitted when RSI drops below oversold level and close price below moving average. After the first entry, the exponential function calculates price drop percentage for next levels. Each time it triggers a DCA order, position sizing is recalculated to keep equal amount per entry. As position size and cost change dynamically, it creates a leverage effect.
As DCA count increases, average holding cost continues to decline. Just a small rebound is enough for take profit of each position. After continuous entries submitted, a stop loss line is plotted above average holding price. Once the price breaks out above average price and stop loss line, all positions are closed.
The biggest advantage is that as the holding cost continues to decline, even during consolidation, cost can still be reduced cumulatively step by step. When trend reverses, due to much lower holding cost than market price, much bigger profit can be realized.
The biggest risk is the limited position size initially. During continuous decline, there can be stop loss risk. So the stop loss percentage needs to be set reasonably based on personal risk appetite.
In addition, setting stop loss level has two extremes. If too loose, not enough retracement can be captured. But if too tight, probability of getting stopped out during mid-term corrections increases. So choosing proper stop loss levels according to different market conditions and risk preference is crucial.
If there are too many DCA levels, when price rises substantially, extremely high holding cost may prevent effective stop loss. So maximum layers of DCA need to be set reasonably based on total capital allocation and highest cost one can endure.
Optimize entry timing signals, by testing parameters and other indicators combinations for higher win rate signals.
Optimize stop loss mechanisms, by testing Λ trailing stop loss or curve fitted trailing stop loss to get better results. Also the levels can be adjusted dynamically based on position allocation percentage.
Optimize take profit ways. Different types of trailing take profits can be examined for better exit opportunities and higher total return.
Add anti-whipsaw mechanism. Sometimes DCA signal can be triggered again soon after stop loss. A whipsaw range can be added to avoid aggressive re-entries right after stops.
This strategy utilizes RSI to determine entries, exponential dynamic stop loss DCA mechanism to adjust position sizing and average costs dynamically, in order to gain price advantage during consolidations. The main optimization areas are focused on entry/exit signals, stop loss and take profit. The core concept of exponential DCA is implemented to shift holding cost lower continually, thus providing more room during consolidations, and achieving multiplied returns when trend emerges. But parameters still need be set carefully based on capital allocation plans to control overall position risks.
/*backtest start: 2023-12-04 00:00:00 end: 2024-01-03 00:00:00 period: 1h basePeriod: 15m 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/// // © A3Sh //@version=5 // Study of a Simple RSI based, PA (priceaveraging) and DCA strategy that opens a new position everytime it hits a specified price level below the first entry. // The first entry is opened when the specified rsi and moving average conditions are met. // The following DCA levels are calculated exponentially and set, starting with a specified % of price drop. // The disctance between the dca levels can be changed with the exponential scale. // Each position closes individually when it reaches a specified take profit. // The position can re-open again when it hits the price level again. // Each time a position is closed and reopened, the average price drops a little. // The position stays open until the first entry closes or when the price reaches the Stop level. // When the price reaches the Stop level, all positions will close at once. // The RSI and MA code for opening the entry is adapted from the Optimized RSI Buy the Dips strategy, by Coinrule. // This code is used for study purposes, but any other low/ dip finding indicator can be used. // https://www.tradingview.com/script/Pm1WAtyI-Optimized-RSI-Strategy-Buy-The-Dips-by-Coinrule/ // Dynamic DCA layers are inspired by the Backtesting 3commas DCA Bot v2, by rouxam // This logic gives more flexibility because you can dyanically change the amount of dca entries. // https://www.tradingview.com/script/8d6Auyst-Backtesting-3commas-DCA-Bot-v2/ // The use of for loops to (re)open and close different entries separately is based on the Simple_Pyramiding strategy. // https://www.tradingview.com/script/t6cNLqDN-Simple-Pyramiding/ strategy('Simple_RSI+PA+DCA', overlay=true, pyramiding=20, initial_capital=500, calc_on_order_fills=true, default_qty_type=strategy.percent_of_equity, commission_type=strategy.commission.percent, commission_value=0.075, close_entries_rule='FIFO') // Backtest Window // start_time = input(defval=timestamp("01 April 2021 20:00"), group = "Backtest Window", title="Start Time") end_time = input(defval=timestamp("01 Aug 2030 20:00"), group = "Backtest Window", title="End Time") window() => true // Inputs // takeProfit = input.float (3, group = 'Risk', title = 'Take Profit %', step=0.1) takeProfitAll = input.float (6, group = "Risk", title = 'Close All %', step=0.1) posCount = input.int (8, group = 'DCA Settings', title = 'Max Amount of Entries') increment = input.float (2, group = 'DCA Settings', title = 'Price Drop % to open First DCA Order', step=0.5)/100 exponent_scale = input.float (1.4, group = 'DCA Settings', title = 'Exponential Scale DCA levels', step=0.1, minval=1.1) bar_lookback = input.int (4999, group = 'DCA Settings', title = 'Lines Bar Lookback', maxval = 4999) plotMA = input.bool (false, group = 'Moving Average', title = 'Plot Moving Average') moving_average = input.int (100, group = 'Moving Average', title = 'MA Length' ) rsiLengthInput = input.int (14, group = 'RSI Settings', title = "RSI Length", minval=1) rsiSourceInput = input.source (close, group = 'RSI Settings', title = 'Source') overSold = input.int (29, group = 'RSI Settings', title = 'Oversold, Trigger to Enter First Position') // variables // var open_position = true // true when there are open positions var entry_price = 0.0 // the entry price of the first entry var dca_price = 0.0 // the price of the different dca layers var int count = 0 // bar counter since first open position var int max_bar = 0 // max bar buffer variable for DCA lines, stop lines, average price var line dca_line = na // lines variable for creating dca lines // arrays // linesArray = array.new_float(posCount,na) // array to store different dca price levels for creating the dca lines // Create max bar buffer for DCA lines, Stop and average price lines // max_bar := count >= bar_lookback ? bar_lookback : count // Order size based on first entry and amount of DCA layers q = (strategy.equity / posCount + 1) / open // Calculate Moving Averages movingaverage_signal = ta.sma(close ,moving_average) plot (plotMA ? movingaverage_signal : na, color = color.new(#f5ff35, 0)) // RSI calculations // up = ta.rma(math.max(ta.change(rsiSourceInput), 0), rsiLengthInput) down = ta.rma(-math.min(ta.change(rsiSourceInput), 0), rsiLengthInput) rsi = down == 0 ? 100 : up == 0 ? 0 : 100 - (100 / (1 + up / down)) // Buy Signal (co) co = ta.crossover(rsi, overSold) and close < movingaverage_signal // Create a white line for average price, since the last opened position // // average_price = line.new(x1 = bar_index - max_bar, y1 = strategy.position_avg_price, x2 = bar_index, y2 = strategy.position_avg_price, color = color.white) // Stop // // Create a red Stop level line based on a specified % above the average price // stop_level = strategy.position_avg_price + (strategy.position_avg_price / 100 * takeProfitAll) // stop_line = line.new(x1 = bar_index - max_bar, y1 = stop_level, x2 = bar_index, y2 = stop_level, color = color.red) // Take profit definition per open position // take_profit_price = close * takeProfit / 100 / syminfo.mintick // Make sure the Stop level and average price level don't excied the bar buffer to avoid errors // // if count <= bar_lookback // line.set_x1(stop_line, strategy.opentrades.entry_bar_index(strategy.opentrades - 1)) // line.set_x1(average_price, strategy.opentrades.entry_bar_index(strategy.opentrades - 1)) // Exponential DCA Layer Calculation fucntion --> First try, needs more experimentation // dca_price_level(index,entry_price) => entry_price * (1 - (increment * math.pow(exponent_scale, index))) // Set Entries // // Open the first entry and set the entry price // if co and strategy.position_size == 0 and window() open_position := true entry_price := close strategy.entry(id = 'FE1', direction = strategy.long, qty = q) // first_entry_line = line.new(x1 = bar_index - max_bar, y1 = entry_price, x2 = bar_index, y2 = entry_price, color = color.blue) // Start bar counting since the position is open // if open_position == true count := count + 1 // Set the DCA entries // // Prices below 1 are not set to avoid negative prices // if strategy.position_size > 0 and window() for i = 0 to strategy.opentrades if strategy.opentrades == i and i < posCount dca_price := dca_price_level(i,entry_price) > 1 ? dca_price_level(i,entry_price) : na entry_id = 'DCA' + str.tostring(i + 1) strategy.entry(id = entry_id, direction = strategy.long, limit = dca_price, qty = q) // Store the values of the different dca price levels in an array and create the dca lines // // Prices below 1 are not stored// if open_position==true and window() for i = 1 to posCount -1 array.push(linesArray, dca_price_level(i,entry_price) > 1 ? dca_price_level(i,entry_price) : na) // for i = 1 to array.size(linesArray) - 1 // dca_line := line.new(x1 = bar_index - max_bar, y1 = array.get(linesArray, i), x2 = bar_index, y2 = array.get(linesArray, i),color = color.blue) // Create thick line to show the last Entry price // // last_entry_price = line.new(x1 = bar_index[5], y1 = strategy.opentrades.entry_price(strategy.opentrades - 1), x2 = bar_index, y2 = strategy.opentrades.entry_price(strategy.opentrades - 1),color = color.rgb(255, 0, 204), width = 5) // Exit the first entry when the take profit triggered // if strategy.opentrades > 0 and window() strategy.exit(id = 'Exit FE', from_entry = 'FE1', profit = take_profit_price) // Exit DCA entries when take profit is triggered // if strategy.opentrades > 0 and window() for i = 0 to strategy.opentrades exit_from = 'DCA' + str.tostring(i + 1) exit_id = 'Exit_' + str.tostring(i + 1) strategy.exit(id = exit_id, from_entry = exit_from, profit = take_profit_price) // Close all positions at once when Stop is crossed // if strategy.opentrades > 0 and ta.crossover(close,stop_level) and window() strategy.close_all() // Make sure nothing is open after alle positions are closed and set the condiftion back to be open for new entries // if strategy.position_size[1] > 0 and strategy.position_size == 0 strategy.cancel_all() strategy.close_all() // line.delete(average_price) // line.delete(stop_line) // line.delete(dca_line) open_position := false // All position are closed, so back to false count := 0 // Reset bar counter