Case Study: Building a Quantitative Strategy from Scratch
Walk through the complete lifecycle of a quantitative trading strategy. Build a pairs trading system from scratch with rigorous backtesting and risk management.
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Walk through the complete lifecycle of a quantitative trading strategy. Build a pairs trading system from scratch with rigorous backtesting and risk management.
Covers ethical quantitative trading by learning to detect spoofing, navigate Reg NMS and MiFID II, implement kill switches, and ensure data privacy compliance.
Covers optimal position sizing using the Kelly Criterion, risk budgeting, and volatility targeting.
Build a robust quantitative research pipeline. From hypothesis formulation and backtesting to paper trading and live production deployment strategies.
Examines quantitative trading-system architecture, including data pipelines, strategy engines, risk controls, and execution infrastructure.
Examines market microstructure mechanics including order book architecture, matching algorithms, and order types.
Covers transaction cost analysis and market impact modeling. Estimate spread, slippage, and liquidity to build realistic backtests and execution strategies.
Covers backtesting frameworks to validate trading strategies. Avoid look-ahead bias, measure risk-adjusted returns.
Covers event-driven trading strategies including merger arbitrage, earnings plays, and fixed income relative value.
Examines cryptocurrency market structure, quantitative strategies for extreme volatility, and risk management in 24/7 decentralized trading.
Extract trading signals from alternative data using NLP. Topics include sentiment analysis, text processing, and building news-based trading systems.
Build ML-driven trading strategies covering return prediction, sentiment analysis, alternative data integration, and reinforcement learning for execution.
Covers supervised ML algorithms for trading: linear models, random forests, gradient boosting.
Explains HFT strategies, including cross-market arbitrage, latency exploitation, electronic market making, and the systems behind microsecond trading.
Explains how market makers capture bid-ask spreads, manage inventory risk, and use the Avellaneda-Stoikov model for quote placement.
Covers volatility as an asset class. Topics include delta hedging, variance swaps, dispersion trading.
Build long-short factor portfolios using quintile rankings. Topics include value, momentum, quality, and volatility factors with exposure analysis.
Covers time-series and cross-sectional momentum strategies. Implement moving average crossovers, breakout systems, and CTA approaches with Python code.
Explains mean reversion through cointegration tests, pairs trading, factor-neutral portfolios, and regime risk management.
Covers quantitative trading fundamentals: alpha generation, strategy categories, backtesting workflows, and performance metrics for systematic investing.
Translate risk analytics into actionable controls through risk limits, hedging strategies, organizational governance, and regulatory frameworks.
Explains market depth, funding liquidity, operational risk, model validation, liquidity-adjusted VaR, and lessons from historical crises.
Explains Credit Valuation Adjustment for derivatives pricing, including exposure profiles, default probability modeling, and the broader XVA framework.
Covers credit risk modeling from Merton's structural framework to reduced-form hazard rates and Gaussian copula portfolio models with Python implementations.
Covers credit risk measurement through Probability of Default, Loss Given Default, and Exposure at Default. Topics include loan pricing and portfolio analysis.
Covers VaR calculation using parametric, historical, and Monte Carlo methods. Examines Expected Shortfall and stress testing for market risk management.
Covers market, credit, liquidity, operational, and model risk. Topics include Basel III capital requirements and risk management governance structures.
Covers Black-Litterman models, robust optimization, practical constraints, and risk parity for institutional portfolio management.
Covers Brinson attribution for sector allocation and selection effects, plus factor-based methods to separate investment alpha from systematic beta exposures.
Covers Sharpe ratio, Sortino ratio, information ratio, and maximum drawdown metrics. Evaluate portfolios with Python implementations.
Covers Arbitrage Pricing Theory and multi-factor models. Topics include Fama-French factors, estimate factor loadings via regression.
Covers Capital Asset Pricing Model: systematic risk, beta estimation, Security Market Line, and alpha. Essential foundations for asset pricing.
Covers model calibration techniques for quantitative finance. Topics include SABR, Heston, GARCH.
Covers Modern Portfolio Theory and mean-variance optimization. Topics include efficient frontier, diversification mathematics.
Covers PCA for extracting factors from yield curves and equity returns. Topics include dimension reduction, eigendecomposition.
Covers regression analysis for finance: estimate market beta, test alpha significance, diagnose heteroskedasticity.
Covers GARCH and ARCH models for time-varying volatility forecasting. Topics include estimation, persistence analysis, and dynamic VaR with Python examples.
Covers autoregressive and moving average models for financial time-series. Topics include stationarity, ACF/PACF diagnostics, ARIMA estimation, and forecasting.
Covers Black's model for pricing interest rate options. Value caps, floors, and swaptions with Python implementations and risk measures.
Covers Heath-Jarrow-Morton framework and LIBOR Market Model for pricing caps, floors, and swaptions. Implement forward rate dynamics in Python.
Covers Vasicek and CIR short-rate models for interest rate dynamics. Topics include mean reversion, bond pricing formulas, and derivative valuation techniques.
Covers exotic options pricing including Asian, barrier, lookback, and digital options. Topics include closed-form solutions and Monte Carlo simulation methods.
Covers finite difference methods for option pricing. Topics include explicit, implicit, and Crank-Nicolson schemes to solve the Black-Scholes PDE numerically.
Covers antithetic variates, control variates, and stratified sampling to reduce Monte Carlo simulation variance by 10x or more for derivatives pricing.
Covers Monte Carlo simulation for derivative pricing. Topics include risk-neutral valuation, path-dependent options like Asian and barrier options.
Covers binomial tree option pricing with the Cox-Ross-Rubinstein model. Price American and European options using backward induction and risk-neutral valuation.
Compute implied volatility using Newton-Raphson and bisection methods. Examines volatility smile, skew patterns, and the VIX index with Python code.
Covers option Greeks: delta, gamma, theta, vega, and rho. Topics include sensitivity analysis, delta hedging, and portfolio risk management techniques.
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