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In this video, we explore how to calculate and visualize *Option Greeks*-Delta, Gamma, Theta, Vega, and Rho-using Python's `numpy`, `matplotlib`, and `scipy` libraries. These metrics are essential for understanding the sensitivity of option prices to various factors such as stock price, volatility, and time to maturity.
📌 What You'll Learn:
How to calculate Option Greeks for calls and puts using the Black-Scholes model.
Visualize the impact of stock prices and volatilities on Option Greeks.
Create dynamic plots to interpret how Delta, Gamma, and other Greeks change with varying market conditions.
📂 Code Breakdown:
1. First Code Block:
Generates and plots Option Greeks for a range of stock prices.
Highlights the relationship between stock prices and each Greek.
Demonstrates Delta, Gamma, Theta, Vega, and Rho with stock price variations.
2. Second Code Block:
Calculates Delta and Gamma for different levels of volatility.
Plots these metrics against a range of stock prices to showcase their sensitivity to changes in volatility.
✨ Key Python Concepts:
`numpy` for efficient numerical computations.
`matplotlib` for creating professional-grade visualizations.
`scipy.stats.norm` for cumulative distribution and probability density functions.
💻 Prerequisites:
Basic understanding of options trading and Option Greeks.
Familiarity with Python programming.
📊 Applications:
Enhance your options trading strategies.
Understand risk management with real-world financial modeling.
🔗 Get the Full Code: [Google Colab Link](colab.research...)
• Javascript Code for Bl...
📘 References:
Here are reliable references from John C. Hull, Fabrice Rouah, Espen Haug, Simon Benninga, and Robert L. McDonald on derivatives and related Greeks:
John C. Hull
1. Hull, J. C. (2022). "Options, Futures, and Other Derivatives" (11th Edition). Pearson.
A comprehensive resource on derivatives markets, pricing, and applications.
2. Hull, J. C. (2022). "Fundamentals of Futures and Options Markets" (10th Edition). Pearson.
A simplified version of Hull's main book, ideal for beginners.
Fabrice Rouah
1. Rouah, F. D. (2013). "The Heston Model and Its Extensions in VBA" Wiley.
Focuses on the Heston stochastic volatility model and its implementation using VBA.
2. Rouah, F. D. (2012). "The Heston Model and Its Extensions in Matlab and C#" Wiley.
Explores advanced derivatives modeling using the Heston model with implementation in MATLAB and C#.
Espen Gaarder Haug
1. Haug, E. G. (2007). "The Complete Guide to Option Pricing Formulas" (2nd Edition). McGraw-Hill.
A practical guide covering over 120 option pricing models with detailed formulas and code.
Simon Benninga
1. Benninga, S. (2014). "Financial Modeling" (4th Edition). MIT Press.
A classic textbook that provides practical examples of financial modeling in Excel, with applications to derivatives.
2. Benninga, S., & Czaczkes, B. (2000). *"Principles of Finance with Excel"*. Oxford University Press.
Focuses on using Excel for a wide variety of financial calculations, including derivatives pricing.
Robert L. McDonald
1. McDonald, R. L. (2013). "Derivatives Markets" (3rd Edition). Pearson.
An in-depth exploration of derivatives pricing, risk management, and market mechanics.
These references are seminal works in the field of financial modeling and derivatives pricing and are widely used in academia and industry.