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Principle:Avhz RustQuant Option Greeks

From Leeroopedia


Knowledge Sources
Domains Derivatives, Risk_Management, Option_Pricing
Last Updated 2026-02-07 20:00 GMT

Overview

Partial derivatives of the option pricing function with respect to model parameters, measuring sensitivity of an option's value to changes in underlying factors.

Description

Option Greeks are the partial derivatives of the option price with respect to various inputs. They are essential for hedging, risk management, and understanding how option values change as market conditions evolve.

The Greeks hierarchy:

  • First-order: Delta (spot), Theta (time), Vega (volatility), Rho (rate)
  • Second-order: Gamma (delta-spot), Vanna (delta-vol), Charm (delta-time), Vomma (vega-vol)
  • Third-order: Speed (gamma-spot), Zomma (gamma-vol), Color (gamma-time), Ultima (vomma-vol)

Greeks enable construction of delta-neutral, gamma-neutral, or vega-neutral portfolios for hedging purposes.

Usage

Use this principle after computing an option price when you need to understand risk exposures. Greeks are computed from the same pricing engine, using the same option contract and model parameters.

Theoretical Basis

For the generalized BSM model, the key first-order Greeks are:

Δ=CS=e(br)TN(d1)

Γ=2CS2=e(br)Tn(d1)SσT

Θ=Ct

𝒱=Cσ=Se(br)Tn(d1)T

ρ=Cr=KTerTN(d2)

Higher-order Greeks are partial derivatives of these first-order sensitivities:

  • Vanna = d(Delta)/d(sigma) = d(Vega)/d(S)
  • Charm = d(Delta)/d(t)
  • Lambda = Delta * S / C (leverage/elasticity)
  • Zomma = d(Gamma)/d(sigma)
  • Speed = d(Gamma)/d(S)
  • Color = d(Gamma)/d(t)
  • Vomma = d(Vega)/d(sigma)
  • Ultima = d(Vomma)/d(sigma)

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