Doctor of Philosophy with a Major in Operations Research
The Doctor of Philosophy in Operations Research has the following principal objectives:
1.) To train students who are able to advance the state of knowledge and practice in operations research through innovative research contributions.
2.) To train students who are able to integrate and apply principles from optimization, stochastic processes, simulations, and machine learning to innovate, and create operations research models and apply them to solve important real-world problems.
3.) To train students who are able to participate in multidisciplinary teams that include individuals whose primary background is in statistics, optimization, engineering, mathematics and science.
4.) To provide a high quality education that prepares individuals for careers in industry, government (e.g., national laboratories), and academia, both in terms of knowledge, computational (e.g., software development) skills, and mathematical modeling skills.
All PhD programs must incorporate a standard set of Requirements for the Doctoral Degree.
Students in the Ph.D. in Operations Research program choose a single track from Optimization, Stochastics, or Applications that guides the program of study as given below.
Code | Title | Credit Hours |
---|---|---|
Domain Core (6 courses) | ||
ISYE 6661 | Linear Optimization | 3 |
ISYE 6662 | Discrete Optimization | 3 |
ISYE 6663 | Nonlinear Optimization | 3 |
ISYE 6761 | Stochastic Processes I | 3 |
ISYE 6762 | Stochastic Processes II | 3 |
ISYE 6832 | Simulation Theory and Methods | 3 |
Depth Electives (3 or more courses) | ||
Students choose courses below only in their chosen track: | ||
Optimization | ||
ISYE 6664 | Stochastic Optimization | 3 |
ISYE 6679 | Computational Methods in Optimization | 3 |
ISYE 7510 | Graph Algorithms | 3 |
ISYE 7661 | Theory of Linear Inequalities | 3 |
ISYE 7682 | Convexity | 3 |
ISYE 7683 | Advanced Nonlinear Programming | 3 |
ISYE 7686 | Advanced Combinatorial Optimization | 3 |
ISYE 7687 | Advanced Integer Programming | 3 |
ISYE 7688 | Computational Mathematical Programming | 3 |
Stochastics | ||
ISYE 6664 | Stochastic Optimization | 3 |
MATH 6241 | Probability I | 3 |
MATH 6242 | Probability II | 3 |
MATH 7244 | Stochastic Processes and Stochastic Calculus I | 3 |
Applications | ||
ISYE 6229 | Productivity Measurement and Analysis | 3 |
ISYE 6230 | Economic Decision Analysis | 3 |
ISYE 6664 | Stochastic Optimization | 3 |
ISYE 6759 | Stochastic Processes in Finance | 3 |
ISYE 7201 | Production and Service Systems Engineering | 3 |
ISYE 7203 | Logistics Systems Engineering | 3 |
MATH 7244 | Stochastic Processes and Stochastic Calculus I | 3 |
Breadth Electives (2 or more courses) | ||
Students choose courses below only in their chose track | ||
Optimization | ||
ISYE 6230 | Economic Decision Analysis | 3 |
ISYE 6412 | Theoretical Statistics | 3 |
ISYE 6656 | Queuing Theory | 3 |
ISYE 7201 | Production and Service Systems Engineering | 3 |
ISYE 7203 | Logistics Systems Engineering | 3 |
ISYE 7400 | Advanced Design of Experiments | 3 |
ISYE 7401 | Advanced Statistical Modeling | 3 |
ISYE 7405 | Multivariate Data Analysis | 3 |
MATH 6014 | Graph Theory and Combinatorial Structures | 3 |
MATH 6241 | Probability I | 3 |
MATH 6242 | Probability II | 3 |
MATH 6643 | Numerical Linear Algebra | 3 |
MATH 6644 | Iterative Methods for Systems of Equations | 3 |
CS 6550 | Design and Analysis of Algorithms | 3 |
CS 7520 | Approximation Algorithms | 3 |
CS 7530 | Randomized Algorithms | 3 |
Stochastics | ||
BIOL 7023 | Bioinformatics | 3 |
ISYE 6412 | Theoretical Statistics | 3 |
ISYE 6645 | Monte Carlo Methods | 3 |
ISYE 6679 | Computational Methods in Optimization | 3 |
ISYE 6759 | Stochastic Processes in Finance | 3 |
ISYE 7201 | Production and Service Systems Engineering | 3 |
ISYE 7203 | Logistics Systems Engineering | 3 |
ISYE 6400 | Design Of Experiments I | 3 |
ISYE 7401 | Advanced Statistical Modeling | 3 |
ISYE 7405 | Multivariate Data Analysis | 3 |
Applications | ||
ISYE 6402 | Time Series Analysis | 3 |
ISYE 6673 | Financial Optimization Models | 3 |
ISYE 6679 | Computational Methods in Optimization | 3 |
MATH 6014 | Graph Theory and Combinatorial Structures | 3 |
MATH 6241 | Probability I | 3 |
MATH 6242 | Probability II | 3 |
ISYE 6656 | Queuing Theory | 3 |
ISYE 7400 | Advanced Design of Experiments | 3 |
ISYE 7401 | Advanced Statistical Modeling | 3 |
ISYE 7405 | Multivariate Data Analysis | 3 |
ISYE 7682 | Convexity | 3 |
ISYE 7683 | Advanced Nonlinear Programming | 3 |
ISYE 7686 | Advanced Combinatorial Optimization | 3 |
ISYE 7687 | Advanced Integer Programming | 3 |
CS 6550 | Design and Analysis of Algorithms | 3 |
CS 7520 | Approximation Algorithms | 3 |
CS 7530 | Randomized Algorithms | 3 |
Comprehensive exam
The comprehensive examination for the Ph.D. in Operations Research is based on content of the courses in the Domain Core. Students must complete exams in ISYE 6661 and 6761, and one other Domain Core course.
Second year paper requirement
Students in the Ph.D. in Operations Research program are required to submit a second year paper no later than the end of Spring semester of their second full program year. This paper at a minimum:
- defines a research problem;
- provides a literature review;
- describes progress towards solving the research problem;
- identifies additional research questions to be answered and steps to be taken.
The advisor needs to certify that the document meets the above requirements, that it was written primarily by the student, and that the student is making good progress on research and should stay in the OR program. Should a student fail to complete the paper on time, they will be asked to leave the program.
Dissertation Research Proposal
The first step toward completing a final dissertation is to receive formal approval of a dissertation research topic. This is accomplished via the Dissertation Research Proposal. Students must present their dissertation research proposal to the Thesis Advisory Committee no later than the end of Spring semester of the student’s third full year in the program.
Each Ph.D. student must prepare a cogent, self-contained written research proposal that should describe the research to be addressed, demonstrate an understanding of existing work, describe intended research approaches, and present initial and anticipated results. The student must deliver this proposal, along with an oral presentation, to his/her committee. The content expected in the written research proposal should be discussed with the research advisor and committee members.
If judged to be satisfactory, the Thesis Advisory Committee members must sign the appropriate section of the Request for Admission to Ph.D. Candidacy form approving the thesis topic. Each member of the committee must also complete the Dissertation Proposal
Assessment Form, available on the ISyE website. The student should bring copies of all forms to the proposal presentation and is responsible for returning all forms to the Academic Programs Office. A student must present the thesis proposal at least one semester prior to the Final Doctoral Examination.
A student who fails to obtain approval of his/her thesis proposal must modify the existing proposal, and if required by the Thesis Advisory Committee, must defend the modified proposal in a subsequent oral presentation. If this second thesis proposal is not successful, the student will have not more than 6 months to identify a new research topic and if necessary a new research advisor, and to report this information to the Associate Chair for Graduate Studies. Failing to do so will prevent a student from continuing in the program.
Dissertation
The primary requirement of a Ph.D. program is the completion of a dissertation, a written work documenting the research findings of a searching and authoritative investigation of a topic in the chosen primary field of study. The dissertation must either extend the boundaries of fundamental knowledge in a field or provide a new and better understanding or interpretation of facts already known. It should demonstrate that the candidate possesses powers of original thought, a talent for scholarship and research, and an ability to organize and present his/her findings.
Georgia Tech Graduate Studies maintains a website that discusses policies and requirements for Ph.D. dissertations at Georgia Tech.
Minor
The minor will follow the standard Georgia Tech requirement: 6 hours outside the student’s home unit with a letter grade of 'C' or higher. The courses for the minor should form a cohesive program of study that is approved by the ACGS. Courses selected from the breadth requirements can be used to count toward the Minor.