
The Multi-Timeframe Volatility Tracking Quantitative Strategy is a trading system based on price volatility ranges. This strategy establishes dynamic support and resistance levels by calculating price fluctuation ranges across monthly, weekly, and daily timeframes to identify potential trading opportunities. The core concept revolves around price zones calculated from historical volatility, using multi-timeframe analysis for cross-validation, and generating trading signals when price breaks through specific volatility zones. The system particularly focuses on weekly and monthly support and resistance levels, identifying high-probability entry and exit points through the interaction of these key price levels.
The strategy is built on the foundation of price volatility ranges and multi-timeframe analysis. Specifically, it works as follows:
Multi-Timeframe Data Acquisition: The strategy first obtains price data for monthly (M), weekly (W), and daily (D) timeframes using the request.security function, including closing prices, highs, and lows.
Dynamic Volatility Range Calculation: Using the acquired price data, the strategy calculates multiple volatility-based price levels:
(((high-low)*(1.1/factor))+(close)), where factors of 2 and 4 correspond to resistance levels at different distances.((close)-((high-low)*(1.1/factor))) to calculate support levels at varying distances.Entry Logic:
Exit Logic:
Graphical Display: The strategy plots key support and resistance levels on the chart, primarily displaying monthly and weekly H3 and L3 levels, using different colors for distinction to facilitate visual analysis by traders. Additionally, when profit-taking signals are triggered, arrow markers appear on the chart.
Multi-Timeframe Synergistic Analysis: By integrating monthly, weekly, and daily data, the strategy can capture market structures across different timeframes, enhancing signal reliability. Compared to single-timeframe strategies, multi-timeframe analysis provides a more comprehensive grasp of market trends.
Volatility-Based Adaptability: The support and resistance levels used by the strategy are calculated based on historical price volatility rather than fixed values, allowing the strategy to automatically adapt to different market environments and volatility changes.
Clear Risk Management Framework: By setting volatility-based exit conditions, the strategy provides traders with relatively objective stop-loss and profit-taking mechanisms, helping to control risk in individual trades.
Trend Confirmation Mechanism: The strategy requires not only price breakouts but also bullish candle patterns, which helps filter out false breakout signals.
Visual Intuitiveness: By plotting key price levels and signal markers on the chart, traders can intuitively understand market structure and potential trading opportunities, facilitating real-time decision-making and strategy adjustments.
Lag Risk: The strategy uses data from previous periods to calculate support and resistance levels, which in rapidly fluctuating markets may lead to missing optimal entry points or exiting too early.
False Breakout Risk: Even with multiple confirmation conditions, false breakouts may still occur, especially in low-liquidity or high-volatility market environments. Solutions include adding volume confirmation or setting stricter breakout conditions.
Parameter Sensitivity: The coefficients used by the strategy (1.1⁄2 and 1.1⁄4) significantly impact results, and different markets and periods may require different optimized parameters. Thorough historical backtesting and parameter optimization are recommended.
Correlation Risk: The code includes references to BTCUSD (although commented out in the final conditions), suggesting the strategy may consider inter-asset correlations. If market correlations change, strategy performance may be affected.
Lack of Complete Stop-Loss Mechanism: Although the strategy defines exit conditions, there is no explicit price-based stop-loss setting, which could lead to excessive losses in extreme market conditions. Adding fixed stop-losses or ATR-based dynamic stop-losses is recommended.
Improve Risk Management: Add explicit stop-loss mechanisms, such as ATR-based dynamic stop-losses or maximum loss percentage settings. Additionally, consider implementing a staged profit-taking mechanism to partially reduce positions at different price levels.
Parameter Self-Adaptation: The strategy currently uses fixed volatility coefficients (1.1⁄2 and 1.1⁄4). Consider allowing these parameters to adjust automatically based on market volatility. For example, use larger coefficients during high-volatility periods and smaller coefficients during low-volatility periods.
Add Filters: Introduce trend strength indicators (such as ADX) or volatility indicators (such as ATR) as additional filtering conditions, trading only in environments with clear trends or appropriate volatility, avoiding frequent trading in ranging or excessively volatile markets.
Time Filtering: Add time filtering mechanisms to avoid trading during major economic data releases or low-liquidity periods, improving signal quality.
Integrate Volume Analysis: Price breakouts need sufficient trading volume to be sustainable. Consider adding volume confirmation conditions to the strategy, such as requiring breakout volume to be higher than the average of previous periods.
Optimize System Parameters: Through in-depth historical backtesting and walk-forward analysis, identify optimal parameter combinations for different market environments, and even consider developing a dynamic parameter adjustment mechanism.
The Multi-Timeframe Volatility Tracking Quantitative Strategy is a trading system based on price volatility ranges that identifies high-probability trading opportunities by integrating price data across multiple timeframes and calculating dynamic support and resistance levels. The strategy’s most distinctive feature is its utilization of synergies between different timeframes, improving trading signal reliability through cross-validation.
The core advantages of the strategy lie in its adaptability and multi-timeframe analytical framework, enabling it to maintain effectiveness across various market environments. However, users need to be aware of issues such as lag, false breakout risks, and parameter sensitivity, and implement comprehensive risk management measures to control potential losses.
Through continuous optimization of the strategy, particularly improvements in risk management, parameter self-adaptation, and filtering mechanisms, this strategy has the potential to become a robust trading system. Most importantly, traders should understand the logic behind the strategy rather than merely executing signals mechanically, enabling appropriate adjustments when market conditions change.
/*backtest
start: 2025-03-25 00:00:00
end: 2025-03-26 00:00:00
period: 1m
basePeriod: 1m
exchanges: [{"eid":"Futures_Binance","currency":"DOGE_USDT"}]
*/
//@version=6
strategy("DOGE/USDT 5X Scalping Strategy", overlay=true, margin_long=20, margin_short=0)
// === Core Parameters ===
fastEMA = input.int(3, "Fast EMA Length", minval=1, maxval=20)
slowEMA = input.int(8, "Slow EMA Length", minval=2, maxval=50)
trendEMA = input.int(55, "Trend EMA Length", minval=10, maxval=200)
atrPeriod = input.int(14, "ATR Period", minval=1, maxval=50)
tradeInterval = input.int(72, "Minutes Between Trades", minval=1, maxval=1440)
// Risk Management
slMultiplier = input.float(1.2, "Stop-Loss (ATR Multiple)", minval=0.5, maxval=5.0, step=0.1)
tpMultiplier = input.float(2.0, "Take-Profit (ATR Multiple)", minval=0.5, maxval=10.0, step=0.1)
riskPct = input.float(1.0, "Risk Per Trade (%)", minval=0.1, maxval=10.0, step=0.1)
leverage = 5.0 // Fixed 5x leverage
// === Calculate Indicators ===
fastLine = ta.ema(close, fastEMA)
slowLine = ta.ema(close, slowEMA)
trendLine = ta.ema(close, trendEMA)
atrValue = ta.atr(atrPeriod)
// === Visualize Indicators ===
// Using explicit colors to ensure visibility
fastColor = #2196F3 // Blue
slowColor = #FF9800 // Orange
trendColor = #757575 // Gray
p1 = plot(fastLine, "Fast EMA", color=fastColor, linewidth=2)
p2 = plot(slowLine, "Slow EMA", color=slowColor, linewidth=2)
p3 = plot(trendLine, "Trend EMA", color=trendColor, linewidth=1)
// Cross detection for visualization
crossUp = ta.crossover(fastLine, slowLine)
crossDown = ta.crossunder(fastLine, slowLine)
plotshape(crossUp, "EMA Cross Up", style=shape.triangleup, location=location.belowbar, color=color.green, size=size.small)
plotshape(crossDown, "EMA Cross Down", style=shape.triangledown, location=location.abovebar, color=color.red, size=size.small)
// === Trade Logic ===
// Cooldown mechanism
var int lastTradeBarIndex = 0
timeElapsed = (bar_index - lastTradeBarIndex) >= tradeInterval
noActivePosition = strategy.position_size == 0
// Entry conditions
emaCross = ta.crossover(fastLine, slowLine)
trendFilter = close > trendLine
validEntry = emaCross and trendFilter and timeElapsed and noActivePosition
// Position sizing calculation
equity = strategy.equity
riskAmount = equity * (riskPct / 100)
stopDistance = atrValue * slMultiplier
positionSize = math.round((riskAmount / stopDistance) * leverage) // Round to whole tokens for DOGE
// Visualize entry signals
plotshape(validEntry, "Entry Signal", style=shape.circle, location=location.belowbar, color=color.lime, size=size.normal)
// === Strategy Execution ===
if (validEntry)
// Entry
strategy.entry("Long", strategy.long, qty=positionSize)
// Set exit points
stopPrice = close - (atrValue * slMultiplier)
targetPrice = close + (atrValue * tpMultiplier)
strategy.exit("Exit", "Long", stop=stopPrice, limit=targetPrice)
// Reset cooldown timer
lastTradeBarIndex := bar_index