بسم الله الرحمن الرحيم (يَرْفَعِ ٱللَّهُ ٱلَّذِينَ آمَنُواْ مِنكُمْ وَٱلَّذِينَ أُوتُواْ ٱلْعِلْمَ دَرَجَاتٍ وَٱللَّهُ بِمَا تَعْمَلُونَ خَبِيرٌ } العلم درجات: أولها الصمت، والثانية الاستماع، والثالثة الحفظ، والرابعة العمل، والخامسة النشر ***مروان طاهات*** يرحب بكم ويكيبيديا الموسوعة المروانية MANT

الثلاثاء، 20 مايو 2025

Financial Engineering: Concept and Role in Modern Risk Management

 Introduction:

Amid global economic shifts and the growing complexity of financial markets, institutions and companies are increasingly in need of advanced scientific tools to adapt to change and minimize risks associated with investment and finance. From this context, Financial Engineering has emerged as a practical and innovative field that combines finance, mathematics, statistics, and modern computing technologies.


1. Definition of Financial Engineering

Financial engineering is defined as:

“The use of mathematical, statistical, and technical tools to design and develop innovative financial solutions that contribute to analyzing and managing risk while maximizing institutional value.”
(Marshall & Bansal, 1992)

It is also described as:

“The application of financial theories using computational and mathematical models to create financial instruments that enhance investment decisions and manage capital and risk effectively.”
(Neely, 2003)


2. Objectives of Financial Engineering

  • Designing financial instruments to support innovative project financing.

  • Estimating and measuring financial risks on both short- and long-term levels.

  • Developing strategies to hedge against market volatility.

  • Ensuring financial sustainability and maintaining liquidity without compromising profitability.

  • Supporting financial decision-making based on accurate data and forecasting.


3. Financial Innovation as the Core of Financial Engineering

Financial innovation is a cornerstone of financial engineering. It enables institutions to:

  • Respond to sudden market changes.

  • Develop new financial products such as derivatives and structured contracts.

  • Improve the effectiveness of risk management and reduce the cost of capital.


4. Tools of Financial Engineering

  • Futures contracts

  • Financial options

  • Derivatives

  • Pricing models (e.g., Black-Scholes Model)

  • Hedging strategies and portfolio management


5. Importance of Financial Engineering for Institutions

  • Helps mitigate unexpected financial risks.

  • Enhances the quality of investment decision-making.

  • Provides more efficient project financing methods.

  • Plays a key role in long-term financial planning and sustainability.


Conclusion:

Financial engineering has become a central element in the success of companies and financial institutions, due to its ability to merge analytical thinking with scientific tools. This integration enables organizations to face complex financial challenges with greater efficiency and flexibility.


References:

  1. Marshall, J. F., & Bansal, V. K. (1992). Financial Engineering: A Complete Guide to Financial Innovation. Prentice Hall.

  2. Neely, C. J. (2003). An Introduction to Financial Engineering. Federal Reserve Bank of St. Louis Review.

  3. Hull, J. C. (2021). Options, Futures, and Other Derivatives (10th ed.). Pearson.

  4. Fabozzi, F. J., et al. (2002). Handbook of Financial Engineering. Wiley.