Operations Research and Financial Engineering

Academic Year:

2018-19

Address:

Sherrerd Hall

Website:

Department of Operations Research and Financial Engineering

Program offerings:

Ph.D.

M.S.E.

Director of Graduate Studies

Jianqing Fan

Graduate Program Administrator

Kimberly Lupinacci

Academic department detail

Overview

Foundations

The ORFE program places a strong emphasis on mathematical and computational tools. Students in ORFE develop a unique set of skills that build upon a solid foundation in probability, statistics, and optimization.

Applications

The theoretical foundations of ORFE are of central importance in many complex problems in engineering and science. Students and faculty in ORFE work in a broad range of application areas, such as finance, energy, health, risk analysis, biostatistics, genomics, machine learning, operations research, stochastic networks, signal and image processing, automated vehicle control systems, optimal design of engineered systems, robotics, astrophysics, and homeland security.

Impact

Graduates of the Ph.D. program work in academia, research organizations, and industry. Many ORFE graduates hold faculty positions at top universities.

The department offers two degree programs: the Doctor of Philosophy (Ph.D.) in Operations Research and Financial Engineering, and a Master of Science in Engineering (M.S.E.). These programs provide a great deal of flexibility for students in designing individual plans of study and research according to their needs and interests. The department is a major participant in the Master of Finance (M.Fin.) program offered through the Bendheim Center for Finance.

Applying

Application Deadline:

December 31 - 11:59PM Eastern Standard Time

Program Length:

Ph.D. 4 years, M.S.E. 2 years

Application Fee:

$90

Application Requirements:

Statement of Academic Purpose

Resume/Curriculum Vitae

Recommendation Letters

Transcripts

Fall Semester Grades

Required Tests

English Language Tests

GRE :

General Test required

Additional Departmental Requirements:

All applicants are required to select a subplan when applying.
All applicants are required to submit a GRE general test. A mathematics subject test is strongly recommended.
M.S.E. applicants are required to have the endorsement of a faculty member who is willing to supervise them prior to submitting an application.
M.S.E. applicants are required to submit a Statement of Financial Resources.

Ph.D.

Ph.D. Requirements:

Program Description:

The Ph.D. program is formulated to prepare students for research and teaching. The aim of the program is to provide a strong disciplinary background in at least one of the core areas of research in the department. The emphasis is on the theoretical foundations, mathematical models, and computational issues in practical problem-solving. Current teaching and research activities include probability and stochastic processes, stochastic analysis, mathematical statistics, machine learning, analysis of big data, linear and nonlinear optimization, stochastic optimization, convex analysis, stochastic networks, queueing theory, mathematical and computational finance, and financial econometrics. Application areas of current interest to faculty include finance, energy, health, biostatistics, genomics, robotics, and astrophysics

The departmental faculty is affiliated with a number of interdisciplinary programs and centers, including the Program in Applied and Computational Mathematics, the Bendheim Center for Finance, the Andlinger Center for Energy and the Environment, the Princeton Environmental Institute, and the Center for Statistics and Machine Learning. Students may combine their departmental work with courses and research opportunities offered by such programs and centers and also by other departments including Computer Science, Economics, and Mathematics.

In the first year of graduate study, students must take all six core courses. By the end of the first year, students are expected to narrow the area of doctoral research and choose an appropriate adviser. Second-year students are required to complete a qualifying examination, undertake advanced coursework, research projects, and prepare for the general examination. The general examination is normally taken at the end of the second year.

Beyond the general examination, the completion of a dissertation usually takes two to three years. Upon acceptance of the dissertation by the department and the Graduate School, candidates for the Ph.D. stand for the final public oral examination, which is primarily a defense of the dissertation.

Every admitted Ph.D. student is given financial support in the form of a first-year fellowship. In addition, all admitted Ph.D. students are automatically considered for the prestigious Wu and Upton Fellowships. Ph.D students are normally supported through a research or teaching assistantship throughout their studies while making progress toward their Ph.D.

Courses:

Students, in consultation with the director of graduate studies (DGS), develop a course plan. The required plan consists of six courses, emphasizing the foundations of the program, probability, statistics, and optimization.

The following core courses are required:

ORF 522 Linear and Nonlinear Optimization
ORF 523 Convex and Conic Optimization
ORF 524 Statistical Theory and Methods
ORF 525 Statistical Learning and Nonparametric Estimation
ORF 526 Probability Theory
ORF 527 Stochastic Calculus

Pre-Generals Requirement(s):

Qualifying Examination

Each student must satisfy qualifying requirements. Qualifying exams are offered in September of the student’s second year.

A student who obtained a grade of A- or better in four of the six required classes will be exempt from the September qualifying exams. If this is not the case, the student will meet with the DGS to decide which exams need to be taken in September to satisfy the requirements. The optimization exams are based on ORF 522 and ORF 523. The probability exams are based on ORF 526 and ORF 527. The statistics exams are based on ORF 524 and ORF 525.

The results of the qualifying exam are determined by a vote of the faculty. Students who fail must transfer out of the PhD program. There is no option to retake the exam.

Adviser Selection

By the end of the first year, students are expected to narrow their area of doctoral research and choose an appropriate adviser.

General Exam:

ORFE students take the general exam in April or May of their second year. In order to be considered eligible to stand for the general examination, students must have completed the required core courses, met the qualifying examination requirements, have taken and passed ORF 509, have taken or are currently enrolled in ORF 510, and have received a B+ or higher in two additional advanced courses at the 500 level. The student must also show adequate progress on research and an acceptable level of understanding of his or her area of specialization.

The general examination consists of two parts, a written and oral component, both covering the student's area of specialty. The written component is completed by submitting a written report on the research conducted in ORF 509-510. It is due one week before the exam takes place. The report serves as the basis for the student’s presentation. The oral component is completed by giving a presentation on the research presented in the comprehensive written report. The oral exam may be up to 3 hours in length.

As part of the oral examination, the general examination committee may ask questions related to the research as well as the student’s area of specialization.

For each student, an examining committee is selected by the student and advisor. It has to be approved by the Director of Graduate Studies. The committee consists of the student’s advisor and two additional ORFE faculty or affiliated faculty. The committee will administer the oral exam, evaluate the student’s performance in research and overall knowledge of his/her field, and make a recommendation to the department faculty. A departmental faculty vote determines the final outcome.

Qualifying for the M.A.:

The Master of Arts (M.A.) degree is normally an incidental degree on the way to full Ph.D. candidacy and is earned after a student successfully passes the general examination. It may also be awarded to students who, for various reasons, leave the Ph.D. program, provided that these requirements have been met.

Dissertation and FPO:

Upon completion and acceptance of the dissertation by the department, the candidate will be admitted to the final public oral (FPO) examination.

The Ph.D. is awarded after the candidate’s doctoral dissertation has been accepted and the final public oral examination sustained.

M.S.E.

M.S.E. Requirements:

Program Description:

The ORFE department is geared towards educating students pursuing a get a Ph.D. in the field. As such the M.S.E. program in ORFE has a strong research focus reflected in the requirement of a thesis and requires full-time study for two academic years. Students enrolled in this program are eligible for financial support in the form of research or teaching assistantships if such funds are available.

The admission rate for the M.S.E. degree is very low. Admission is based on the qualifications of the applicant, and requires support of at least one faculty member who expresses an interest to supervise the applicant. Applicants interested in an M.S.E. degree from ORFE are urged to identify and contact a faculty member in whose area of research they would like to work.

Applicants who are primarily interested in a Master's degree in finance should apply for the Master in Finance at the Bendheim Center for Finance. The School of Engineering website provides more information regarding the Master of Science in Engineering program.

Courses:

The course requirements are fulfilled by successfully completing ten one-semester courses, two of which are required research courses (ORF 509 and 510).

Thesis:

The M.S.E. program has a strong research focus reflected in the requirement of a thesis. Upon completion and acceptance of the thesis by the department, the candidate will be admitted to the final defense, administered by at least two faculty members.

Faculty

Chair

K. Ronnie Sircar

Director of Graduate Studies

Jianqing Fan

Professor

René A. Carmona
Jianqing Fan
Alain L. Kornhauser
William A. Massey
John M. Mulvey
Warren B. Powell
K. Ronnie Sircar
Robert J. Vanderbei

Associate Professor

Ramon van Handel

Assistant Professor

Amir Ali Ahmadi
Samory Kpotufe
Miklós Rácz
Mykhaylo Shkolnikov
Ludovic Tangpi
Mengdi Wang

Associated Faculty

Yacine Aït-Sahalia, Economics
Markus K. Brunnermeier, Economics
Weinan E, Mathematics
Sanjeev R. Kulkarni, Electrical Engineering
H. Vincent Poor, Electrical Engineering
Paul D. Seymour, Mathematics
Christopher A. Sims, Economics
Yakov G. Sinai, Mathematics
John D. Storey, Lewis-Sigler Institute for Integrative Genomics
Wei Xiong, Economics

Courses

Permanent Courses

Courses listed below are graduate-level courses that have been approved by the program’s faculty as well as the Curriculum Subcommittee of the Faculty Committee on the Graduate School as permanent course offerings. Permanent courses may be offered by the department or program on an ongoing basis, depending on curricular needs, scheduling requirements, and student interest. Not listed below are undergraduate courses and one-time-only graduate courses, which may be found for a specific term through the Registrar’s website. Also not listed are graduate-level independent reading and research courses, which may be approved by the Graduate School for individual students.

FIN 501 Asset Pricing I: Pricing Models and Derivatives (also

ORF 514

) Provides and introduction ot the mofern theory of asset pricing. Topics include: (1) no arbitrage, Arrow-Debreu prices and equivalent martingale measure; (ii) security structure and market completeness; (iii) mean-variance analysis, Beta-Pricing, CAPM; and (iv) introduction to derivative pricing.

ORF 504 Financial Econometrics (also

FIN 504

) This course covers econometric and statistical methods as applied to finance. Topics include: (i) Measurement issues in finance (ii) Predictability of asset returns and volatilities (iii) Value at Risk and extremal events (iv) Linear factor pricing and portfolio problems (v) Intertemporal models of the Stochastic Discount Factor and Generalized Method of Moments (vi) Vector Autoregressive and maximum likelihood methods in finance (vii) Risk Neutral valuation in discrete time (viii) Estimation methods for continuous time models (ix) Volatility smiles and alternatives to Black-Scholes (x) Nonparametric statistical methods for option pricing.

ORF 505 Statistical Analysis of Financial Data (also

FIN 505

) Linear and mixed effect models. Nonlinear regression. Nonparametricegression and classification. Time series analysis: stationarity and classical linear models (AR, MA, ARMA, ..). Nonlinear and nonstationary time series models. State space systems, hidden Markov models and filtering.

ORF 509 Directed Research I Under the direction of a faculty member, Ph.D. and M.S.E. students carry out research, write a report each, and present the results. Of these, 509 is normally taken during the first year of study. Doctoral students should complete 510 one semester prior to taking the general examination.

ORF 510 Directed Research II Under the direction of a faculty member, Ph.D. and M.S.E. students carry out research, write a report each, and present the results. Of these, 509 is normally taken during the first year of study. Doctoral students should complete 510 one semester prior to taking the general examination.

ORF 511 Extramural Summer Project Summer research project designed in conjunction with the student's advisor and an industrial, NGO, or government sponsor, that will provide practical experience relevant to the student's course of study. Start date no earlier than June 1. A research report and sponsor's evaluation are required.

ORF 515 Asset Pricing II: Stochastic Calculus and Advanced Derivatives (also

FIN 503

) Course begins with an overview of basic probability theory and covers the elements of stochastic calculus and stochastic differential equations that are widely used in modern financial applications. Topics include the Poisson process, Brownian motion, martingales, diffusions and their connection with partial differential equations. Examples from applications include the Black-Scholes option pricing and hedging theory, bond pricing and stochastic volatility models.

ORF 522 Linear and Nonlinear Optimization Theoretical concepts underlying linear programming, with computer implementations of some of the different methods. The topics covered include duality theory, the simplex method, interior point methods, related numerical issues, and modeling paradigms.

ORF 523 Convex and Conic Optimization An introduction to the central concepts needed for studying the theory, algorithms, and applications of nonlinear optimization problems. Topics covered include first- and second-order optimality conditions; unconstrained methods, including steepest descent, conjugate gradient, and quasi-Newtonian methods; constrained active-set methods; and duality theory and Lagrangian methods. Prerequisite: linear optimization.

ORF 524 Statistical Theory and Methods A graduate level introduction to statistical theory and methods. It introduces some of the most important and commonly-used principles of statistical inference and covers the statistical theory and methods for point estimation, confidence intervals, and hypothesis testing, and the applications of the fundamental theory to linear models and categorical data.

ORF 525 Statistical Learning and Nonparametric Estimation An introduction to the most important and broadly utilized statistical methods used in many scienti¿c data analysis, including general linear, mixed-e¿ects, generalized linear models, regression and ANOVA models. The methodological power of statistics will be emphasized. Objectives of this course are to give students a solid understanding of these methods, and o¿er them experience in applying these methods to real data using statistical computing packages and interpreting results. For master's/Ph.D. students and advanced undergraduates.

ORF 526 Probability Theory Graduate introduction to probability theory beginning with a review of measure and integration. Topics include random variables, expectation, characteristic functions, law of large numbers, central limit theorem, conditioning, martin- gales, Markov chains, and Poisson processes.

ORF 527 Stochastic Calculus An introduction to stochastic analysis based on Brownian motion. Topics include local martingales, the Ito integral and calculus, stochastic differential equations, the Feynman-Kac formula, representation theorems, Girsanov theory, and applications in finance.

ORF 531 Computational Finance in C++ (also

FIN 531

) Introduce the student to the technical and algorithmic aspects of a wide spectrum of computer applications currently used in the financial industry, and to prepare the student for the development of new applications. The student will be introduced to C++, the weekly homework will involve writing C++ code, and the final project will also involve programming in the same environment.

ORF 534 Quantitative Investment Management (also

FIN 534

) A survey of central topics in the area of financial engineering and multiperiod financial planning systems. Pricing methodologies integrated with financial planning systems. Linking asset and liability strategies to maximize surplus-wealth over time. We model the organization as a multistage stochastic program with decision strategies.

ORF 535 Financial Risk Management (also

FIN 535

) This course is about measuring, modeling and managing financial risks. It introduces the variety of instruments that are used to this effect and the methods of designing and evaluating such instruments. Topics covered include risk diversification, planning models, market and nonmarket risks, and portfolio effects. Lectures meet concurrently with ORF 435. Credit for graduate course requires completion of additional assignments.

ORF 538 PDE Methods for Financial Mathematics An introduction to analytical and computational methods common to financial engineering problems. Aimed at PhD students and advanced masters students who have studied stochastic calculus, the course focuses on uses of partial differential equations: their appearance in pricing financial derivatives, their connection with Markov processes, their occurrence as Hamilton-Jacobi-Bellman equations in stochastic control problems, and analytical, asymptotic, and numerical techniques for their solution.

ORF 542 Stochastic Optimal Control Deterministic optimal control, dynamic programming, and Pontryagin maximum principle. Controlled diffusion processes and stochastic dynamic programming. Hamilton-Jacobi-Bellman equation, viscosity solutions. Merton problem, singular optimal control, option pricing via utility maximization.

ORF 544 Stochastic Optimization This course provides a unified presentation of stochastic optimization, cutting across classical fields including dynamic programming (including Markov decision processes), stochastic programming, (discrete time) stochastic control, model predictive control, stochastic search, and robust/risk averse optimization, as well as related fields such as reinforcement learning and approximate dynamic programming. Also covered are both offline and online learning problems. Considerable emphasis is placed on modeling and computation.

ORF 550 Topics in Probability (also

APC 550

) An introduction to nonasymptotic methods for the study of random structures in high dimension that arise in probability, statistics, computer science, and mathematics. Emphasis is on developing a common set of tools that has proved to be useful in different areas. Topics may include: concentration of measure; functional, transportation cost, martingale inequalities; isoperimetry; Markov semigroups, mixing times, random fields; hypercontractivity; thresholds and influences; Stein's method; suprema of random processes; Gaussian and Rademacher inequalities; generic chaining; entropy and combinatorial dimensions; selected applications.

ORF 554 Markov Processes Markov processes with general state spaces; transition semigroups, generators, resolvants; hitting times, jumps, and Levy systems; additive functionals and random time changes; killing and creation of Markovian motions.

ORF 557 Stochastic Analysis Seminar Recent developments in the theory and applications of the analysis of random processes and random fields. Applications include financial engineering, transport by stochastic flows, and statistical imaging.

ORF 558 Stochastic Analysis Seminar Recent developments in the theory and applications of the analysis of random processes and random fields. Applications include financial engineering, transport by stochastic flows, and statistical imaging.

ORF 566 High Dimensional Statistics Course is on statistical theory and methods for high-dimensional statistical learning and inferences arising from processing massive data from various scientific disciplines. Emphasis is given to penalized likelihood methods, independence screening, large covariance modeling, and large-scale hypothesis testing. The important theoretical results are proved.

ORF 569 Special Topics in Statistics and Operations Research Advanced topics in statistics and operations research or the investigation of problems of current interest.

ORF 570 Special Topics in Statistics and Operations Research (also

ELE 578

) Advanced topics in statistics and operations research or the investigation of problems of current interest.

ORF 574 Special Topics in Investment Science (also

FIN 574

) Emphasis on quantitative analysis of markets, trading strategies, risk and return profiles and portfolio analysis. Students develop portfolios of hedge funds; analyze trading models for various hedge fund styles; develop Value-at-Risk analysis of various trading systems and portfolios; analyze relationship between macro-economic variables and various hedge fund trading strategies; analyze hedge funds from the standpoint of asset allocation and efficient frontier models. We will also bring in experts and practitioners in a number of hedge fund trading strategies to add industry feel and context to the lectures and exercises.