FE622 Simulation Methods in Computational Finance and Economics

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Course Catalog Description


This course provides computational tools used in industry by the modern financial analyst. The current financial models and algorithms are further studied and numerically analyzed using regression and time series analysis, decision methods, and simulation techniques. The results are applied to forecasting involving asset pricing, hedging, portfolio and risk assessment, some portfolio and risk management models, investment strategies, and other relevant financial problems. Emphasis will be placed on using modern software. Prerequisite: FE 543 or FE 610
Campus Fall Spring Summer
On Campus X X
Web Campus X X


Professor Email Office
Ionut Florescu
ionut.florescu@stevens.edu Babbio 540

More Information

Course Description

The main goal of a student enrolled in FE621 is to obtain essential computational tools used in the financial industry by modern financial quantitative analysts. The students are to become familiar with such methods as stochastic processes approximation, approximation for solutions to PDE’s, decision methods, and simulation. The purpose is to learn to apply the results to forecasting, asset pricing, hedging, risk assessment, as well as other financial problems. Students must have a strong mathematical background (FE543/FE610), and be familiar with derivatives terminology and concepts at the level of Hull’s textbook (FE620). The course is split in modules and each module will cover theory and test the student’s knowledge on developing and implementing algorithms to solve real problems.

Course Resources


  • AB: Aichinger, Michael and Adnreas Binder. “A Workout in Computational Finance”. John Wiley & Sons, 2013. (light use - easy to read)
  • CS: Clewlow, Les, and Chris Strickland. “Implementing Derivative Models (Wiley Series in Financial Engineering).” (1996). (we will use this text heavily: rank 1)
  • FR: Fusai, Gianluca, and Andrea Roncoroni. “Implementing Models in Quantitative Finance: Method and Cases”. Springer , 2007. (moderate use: rank 2)
  • R: Rouah, Fabrice D. “The Heston Model and its Extensions in Matlab and C#”. John Wiley & Sons, 2013. (moderate use: rank 3)

Additional References

  • Recommended reading Options, Futures and Other Derivatives, by John C. Hull, Prentice Hall, 2014, 9th edition, ISBN: 0133456315 (you may get any of the older editions as the current edition is quite expensive. Use whatever edition you used in FE620).
  • Assignments require knowledge of one of the following programming languages: C++/C#, Java. You can use Matlab or R or SAS or any computational language you wish. Please see the lab courses offerings for introduction and refresher in these programming languages.


Grading Policies

  • The final grade will be determined upon the student’s performance in the course. We will have multiple assignments and quizzes throughout the course. Most of the grade will be coming from the in class midterm as well as from the final. The work tends to be programming intensive so an early start is necessary especially if there are gaps in your programming skills.
  • Only use the “.pdf” format for submitting assignment files. You should be able to transform any document into a pdf file. You can use Adobe acrobat - should be free to Stevens students as far as I know (please call the students help desk), or a simple alternative is to use a pdf printer driver. I write all my documents in LATEX, and that typesetting program produces pdf files. A simple alternative (using any typesetting program) would be to search on Google for a driver that would print to a pdf file. Such drivers are generally free.
  • Late assignments will not be accepted under any circumstances without prior notice and permission of the instructor. If outside circumstances are affecting your ability to perform in the course, you must contact me before you fall behind.
  • Generally the grade distribution follows the following percentages.
    • Assignments 30%
    • Midterm 25%
    • Final 40%
    • Quizzes, class participation 5%

Lecture Outline

Topic Reading
Week 1 Intro., Review Black-Scholes model, Heston and SABR models Notes, AB-1, CS-1, R-1, 2
Week 2 Finding zeros of functions, Greeks and Quadrature methods F-15.1, CS-1, R-11, F-6
Week 3 Binomial Tree Model AB-2, 4
Week 4 Trinomial Tree Model and extensions CS-2,3
Week 5 Finite difference methods AB-3, 7, CS 3, 5
Week 6 Finite element methods FR-4, 5.4,15,17
Week 7 Finite element methods R-8, 10
Week 8 Laplace, Fourier methods, Heston model AB-12, FR-7, R-4,5
Week 10 Optimization and parameter calibration AB-15,16 FR-24,25, R-6
Week 11 Random number generation, Univariate Monte Carlo methods Notes, AB-9,11, CS-4, FR-1,2, R-7
Week 12 Cholesky decomposition, Multivariate Monte Carlo, Variance reduction, Markov Chain Monte Carlo (MCMC) AB-8,10 FR-13,14, R-7
Week 13 PCA and Factor models AB-17.2, CS p. 128, FR-22,23
Week 14 Copula modeling. Application to CDO AB-14, FR-8, 22