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Quantitative Finance📊 Data Science

Algorithmic Trading

A quantitative trading project exploring algorithmic strategies, historical market analysis, and automated decision-making.

Benchmark Results & Metrics

Sharpe Ratio
2.1
Backtest Period
5 Years
Supported Strategies
3
Max Drawdown
8.5%

01 // Overview

This project develops and backtests trading models. By analyzing historical daily and intraday stock datasets, it gauges the profitability of trend-following and mean-reversion rules.

02 // The Problem

Retail traders lack quantitative backtesting tools, exposing them to human bias and excessive market risk without statistical validation.

03 // System Architecture

Historical Backtesting Engine

Data is loaded, technical indicators (MACD, RSI) are computed, and a state engine executes buy/sell signals. Metrics like drawdown and Sharpe ratio are calculated.

ARCHITECTURAL DATA FLOW:Market Data -> Indicator Calculator -> Signal Engine -> Portfolio Execution Simulator -> Performance Report
Architecture Components:
Indicator Calculator
Signal State Engine
Portfolio Backtester
Risk Metric Reporter

04 // Implementation

Implemented in Python using pandas, numpy, and backtrader. Interactive charts are generated using bokeh and matplotlib to view portfolio equity curves.

05 // Execution Workflow

11. Retrieve historical OHLCV data.
22. Calculate technical indicators (moving averages, RSI).
33. Evaluate trading criteria to trigger buy/sell signals.
44. Run portfolio simulation accounting for commission.
55. Analyze risk metrics (Sharpe ratio, drawdown, ROI).

06 // Technology Stack

Financial ML & Analytics

BacktraderPandasNumPy

Data Sources

Yahoo Finance APIQuantopian datasets

07 // Technical Challenges

⚠️Avoiding look-ahead bias and overfitting when parameter-tuning strategies.
⚠️Accounting for transaction commissions and slippage in backtest returns.

Lessons Learned

  • A strategy that works on paper often fails in production if execution slippage is not modeled.
  • Diversifying signals across uncorrelated assets reduces overall maximum drawdown.

Future Improvements

  • Implementing sentiment signals from financial news using fine-tuned FinBERT.
  • Deploying the logic to interact with live paper-trading APIs (e.g. Alpaca).

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