SVI 301 · Tier 300 — Advanced — Stochastic & Volatility · 3 credits
Stochastic Calculus & Black–Scholes
Brownian motion, Itô calculus, risk-neutral pricing, Black–Scholes, and the Greeks the platform shows on every option.
Prerequisites
Learning Objectives
- Explain the leap from discrete-time series to continuous-time stochastic calculus, and why options pricing requires it.
- Construct a scaled random walk and take its continuous-time limit to recover standard Brownian motion.
- State the Itô multiplication table and write a stochastic differential equation, reading off its drift and diffusion.
- State the no-arbitrage principle, the law of one price, and replication as the engine of derivative pricing.
- State the Black–Scholes–Merton formula for a European call and put and identify what each input controls.
- State and interpret the four primary Greeks — delta, gamma, vega, and theta — as partial derivatives of the Black–Scholes price.
- Define rho, vanna, charm, and volga as second-order partial derivatives of the option price, and state what each one measures.
Module Schedule
00Module 0: Course Map: Into Continuous Time7 min01Module 1: From Random Walks to Brownian Motion24 min02Module 2: Itô's Lemma & Stochastic Differential Equations25 min03Module 3: Risk-Neutral Pricing & No-Arbitrage25 min04Module 4: Black–Scholes–Merton & d1/d225 min05Module 5: The Greeks I: Delta, Gamma, Vega, Theta19 min06Module 6: Hedging & the Greeks II: Rho, Vanna, Charm, Volga20 min