Options Greeks & Quantitative Risk
Compute, interpret and aggregate option Greeks in Python, and use scenario analysis and stress testing to understand how options portfolios respond to market moves.
This advanced course covers how volatility is estimated, modeled and represented in derivatives research. You will compare realized volatility estimators, fit GARCH-family models, construct and smooth implied volatility surfaces with arbitrage checks, and calibrate Heston and local volatility models. The course closes with research methodology: forming hypotheses about volatility, testing them on historical data without look-ahead bias, and reporting results with their uncertainty.
8 modules · 32 lessons · 8 weeks. Curriculum preview; the final syllabus may change before enrollment opens.
Build a realized volatility toolkit and compare estimators on historical index data
Construct an arbitrage-checked implied volatility surface from a snapshot of option quotes
Run a documented research study comparing GARCH forecasts with implied volatility as volatility predictors
Quantzivo certificates are completion credentials issued by Quantzivo, not accredited qualifications. Courses teach technical and research skills; they do not promise investment returns or provide investment advice.
Compute, interpret and aggregate option Greeks in Python, and use scenario analysis and stress testing to understand how options portfolios respond to market moves.
Model financial time series with stationarity tests, ARIMA, GARCH, cointegration and state-space methods, and evaluate forecasts with disciplined out-of-sample testing.
Design and build production-grade options analytics software: a pricing and risk library, surface services, APIs, persistence, testing and a web front end.