Derivative Pricing and Structuring

Derivative Pricing represents the classical sell-side quantitative domain, founded upon stochastic calculus, partial differential equations, and martingale measure theory. Its primary mandate is valuing complex non-linear financial contracts (options, swaps, structured exotics) and engineering self-financing dynamic hedges that insulate trading desks from market risk.

This pillar is organised into fifteen topic folders, each a self-contained hub with six sub-pages. Follow them in the order below - each assumes the vocabulary of the ones before it.


Core Pricing & Structuring Topics

  1. Options, Futures & Markets: The pillar’s entry point - option contracts, payoff diagrams, put-call parity, moneyness, and how vanilla derivatives trade. No prerequisites; start here if you have never priced a derivative.
  2. No-Arbitrage & the Binomial Model: Law of one price, discrete dynamic replication, risk-neutral measure, and Cox–Ross–Rubinstein (CRR) trees.
  3. Black–Scholes–Merton: Delta-neutral hedging, the PDE, Feynman–Kac conditional expectations, and the closed-form European pricing formula.
  4. Volatility Surfaces & Smiles: Implied-volatility root finding, skew/smile dynamics, sticky-strike vs sticky-delta rules, and Dupire local volatility.
  5. Advanced Volatility - Heston, SABR & Stochastic-Vol Dynamics: Stochastic-variance processes, the Feller condition, characteristic functions, and smile fitting for exotics.
  6. American Options & Optimal Stopping: Early-exercise frontiers, free-boundary problems, dynamic programming, and tree / PDE / Monte Carlo valuation of American claims.
  7. Exotic & Path-Dependent Options: Barriers, Asians, lookbacks, and structured exotics - valuation under the full toolkit of analytic, PDE, and simulation methods.
  8. Numerical Methods: Finite-difference schemes, Monte Carlo simulation, and the FFT - the computational engines that price models without closed forms.
  9. Interest Rate & Term Structure: Yield-curve bootstrapping, short-rate dynamics (Vasicek, CIR, Hull–White), and HJM / market models.
  10. Counterparty Risk & xVA: CVA/DVA/FVA, collateral, credit exposure, and how counterparty credit risk reprices a derivative.
  11. Calibration & Market Practice: Objective-function design, model selection, parameter fitting to market quotes, and model-risk governance on the desk.
  12. Rough Volatility & Fractional Models: Fractional Brownian motion with , the rough Bergomi model, Hurst estimation, and why an skew is where Markovian SV models fail structurally.
  13. Local-Stochastic Volatility (LSV): The leverage function, Gyöngy’s Markovian projection, Dupire consistency, and the Guyon–Henry-Labordère particle method - how to keep stochastic-vol dynamics and fit the smile exactly.
  14. Deep Hedging & BSDEs: Convex-risk minimisation in incomplete markets, the quadratic-BSDE / nonlinear Feynman–Kac backbone, and Deep BSDE / Deep Galerkin solvers.
  15. Path Signatures & Rough Paths: Iterated integrals, Chen’s identity and the shuffle product, the log-signature and free Lie algebra, and rough path theory - the language rough volatility is written in.

Reading Path (Zero to Expert)

Before this pillar (foundations): read Stochastic Calculus · Probability & Measure Theory first - see the Math Foundations hub for the full consumption order.

A guided route through the fifteen folders, in three stages (the last of which is the frontier).


The Derivative Engineering Pipeline

15 items under this folder.