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The Bachelor of Science in Industrial Engineering with a specialization in System Informatics and Control at Georgia Institute of Technology is a comprehensive program designed to equip students with the skills and knowledge necessary to optimize complex systems and processes across various industries. This curriculum combines foundational coursework in engineering principles with specialized training in systems informatics, control theory, automation, data analysis, and computer modeling. Students will develop expertise in designing, analyzing, and managing intricate systems, utilizing cutting-edge technology and software tools to improve efficiency, safety, and productivity. The program emphasizes a strong interdisciplinary approach, integrating principles from computer science, control systems, operations research, and industrial engineering to prepare graduates for careers in automation, manufacturing, logistics, healthcare, energy, and other sectors that rely on sophisticated system management. Coursework includes topics such as systems dynamics, control systems engineering, information systems, data analytics, machine learning, and system optimization. Students also gain practical experience through laboratory work, project-based learning, and internships, ensuring they can apply theoretical knowledge to real-world challenges. The program aims to develop engineering leaders capable of designing innovative solutions, leveraging data-driven decision-making, and implementing intelligent control systems. Graduates will be well-prepared for advanced studies or for entering competitive roles in industrial automation, system integration, process improvement, and technological innovation. The program consistently aligns its curriculum with current industry standards and technological advancements to ensure students acquire relevant, in-demand skills. With access to state-of-the-art laboratories and collaboration with industry partners, students have numerous opportunities for hands-on learning and professional growth. Graduates of the Industrial Engineering — System Informatics and Control Track at Georgia Tech are known for their analytical thinking, technical expertise, and leadership capacity, making them highly sought after in the global job market.
Domain Core | ||
ISYE 6810 | Sys Montr&Prognostics | 3 |
ISYE 7201 | Prod&Service Sys Engg | 3 |
ISYE 7204 | Info Prod & Ser Sys | 3 |
Methods Core | ||
Select three of the following: | 9 | |
ISYE 6661 |
Linear Optimization | |
ISYE 6761 |
Stochastic Processes I | |
ISYE 7406 |
Data Mining&Stat Learn | |
ECE 6550 |
Linear Sys and Controls | |
Methods Breadth | ||
Select at least three courses from at least two of the areas: | 9 | |
Stochastics and Simulation | ||
ISYE 6644 |
Simulation | |
ISYE 6831 |
Advanced Simulation | |
ISYE 6656 |
Queueing Theory | |
ISYE 6762 |
Stochastic Processes II | |
Statistics | ||
ISYE 6402 |
Time Series Analysis | |
ISYE 6405 |
Statistical Meth-Mfg Dgn | |
ISYE 6412 |
Theoretical Statistics | |
ISYE 6413 |
Dsgn & Analy-Experiments | |
ISYE 6420 |
Bayesian Statistics | |
ISYE 7401 |
Adv Statistical Modeling | |
ISYE 7405 |
Multivariate Data Analy | |
ECE 6555 |
Optimal Estimation | |
Computing and Algorithms | ||
ISYE 6679 |
Computational Methods | |
ISYE 6416 |
Computational Statistics | |
CS 6650 |
||
Dynamics and Control | ||
ECE 6559 |
Adv Linear Systems | |
ECE 6552 |
Nonlinear Systems | |
ECE 6553 |
Optimal Control | |
ECE 6554 |
Adaptive Control | |
ECE 6551 |
Digital Control | |
ECE 6556 |
Intelligent Control | |
ECE 6120 |
Automata Theory | |
ME 6401 |
Linear Control Systems | |
ME 6402 |
Nonlinear Control System | |
ME 6443 |
Variational Methods | |
ME 6403 |
Digital Control Systems | |
ME 6404 |
Adv Ctrl Dsgn Implement | |
Optimization | ||
ISYE 6664 |
Stochastic Optimization | |
ISYE 6662 |
Discrete Optimization | |
ISYE 6663 |
Nonlinear Optimization | |
Elective | ||
Approved Methodology Course |
||
Seminar | ||
ISYE 8014 | Topics in SIAC | 1 |
Applications | ||
Select at least one of the following: | 3 | |
ISYE 6201 |
Manufacturing Systems | |
ISYE 6202 |
Warehousing Systems | |
ISYE 6203 |
Transp&Supply Chain Sys | |
ECE 6557 |
Manufacturing Sys Design | |
ME 6222 |
Mfg Processes & Systems | |
ME 6223 |
Auto Mfg Process Plan | |
ME 6225 |
Metrology & Measure Sys | |
ME 6754 |
Engr Database Mgt System | |
Total Credit Hours | 31 |
It is recommended that students complete the domain and methods core courses before they sit for the comprehensive examination.
A student is not admitted to candidacy until all of the stated course requirements in the Program of Study have been completed.
Requirements
Ph.D. students are admitted for each Fall semester only, and the admissions process is coordinated by the Associate Chair for Graduate Studies. Decisions on applicants to our various Ph.D. programs are determined jointly by a committee of faculty members, potential faculty research advisors, and the Associate Chair. All applicants must select and apply to a specific degree program, although it is possible in some cases to switch programs after enrollment.
A prior Master's degree is not a requirement for admission into our Ph.D. programs, and students can earn an M.S. degree typically within the first two years of Ph.D. study. For those unsure about applying to a Master's program versus a Ph.D. program, please note that students in our Master's programs are not guaranteed admission into a Ph.D. program here; we do offer a simplified application scheme. If you are interested in research and a Ph.D. degree, you should apply to a Ph.D. program directly.
Application Requirements:
- Transcripts: Transcripts of prior academic work are required, as is evidence of an earned Bachelor's degree. Applicant transcripts should demonstrate strong academic preparation and capability, especially in advanced mathematics and computing coursework. Those with less preparation in mathematics and engineering are expected to use coursework at Georgia Tech to quickly establish proficiency.
- Graduate Record Examination (GRE): Scores from the general test are required, and strong performance on the quantitative section is expected. Scores from the Mathematics Subject Test are not required, but can help a student demonstrate proficiency in advanced mathematics.
- Statement of Purpose: The written statement of purpose should describe clearly why the applicant wishes to pursue the Ph.D., including research and career goals. While the statement should describe past experiences, it should also identify clearly the research area of interest to the applicant and the members of our faculty that might serve as research advisor(s).
- Resume: A resume outlining academic experience, research experience and accomplishments, industry experience, specific skills, and outside interests of the applicant is required.
- Letters of Reference: Three (3) credible letters of reference are required that attest to the preparation of the applicant and the likelihood for success in a Ph.D. program. At least two (2) letters should be from faculty members.
Each year, we receive many more applications from qualified students than we have the capacity to admit into our programs. To help admitted students learn more about our programs and meet potential research advisors, we hold an invitation-only Ph.D. Applicant Visit Day annually in early March.
The financing of the Bachelor of Science in Industrial Engineering — System Informatics and Control Track at Georgia Institute of Technology is primarily based on a combination of institutional funding, scholarships, federal and state financial aid programs, and private financial assistance. Tuition rates are established annually and vary depending on residency status, with in-state students typically paying a lower rate compared to out-of-state students. The university provides several scholarship opportunities aimed at undergraduate students, including merit-based scholarships, need-based grants, and departmental awards specifically targeted toward engineering students.
In addition to institutional scholarships, students are encouraged to seek external funding sources such as federal Pell Grants, the HOPE Scholarship, and other state-sponsored financial aid programs. Georgia Institute of Technology also participates in work-study programs that allow students to earn income through part-time employment on campus, which can help offset educational expenses. Loans, both federal and private, are accessible to students who qualify, providing additional support for covering tuition, housing, and other educational costs.
The university offers comprehensive financial planning resources, including information sessions, budgeting workshops, and access to financial aid advisors who assist students in navigating the application process for various aid options. For international students or those from diverse financial backgrounds, the university provides tailored guidance and scholarship opportunities to promote inclusivity and equal access to educational resources.
Overall, the financing framework aims to make the programme accessible to a diverse student body. The combination of scholarships, grants, loans, and part-time employment options enables students to plan their finances effectively throughout their studies. The university continuously reviews and adjusts financial aid policies to reflect economic conditions and to support student success and retention in its engineering programmes.
The Bachelor of Science in Industrial Engineering with a specialization in System Informatics and Control at the Georgia Institute of Technology offers students a comprehensive curriculum designed to equip them with advanced knowledge and skills in systems analysis, information technology, and control engineering. The program emphasizes the integration of engineering principles with data-driven decision-making processes, enabling graduates to optimize complex systems across various industries such as manufacturing, healthcare, transportation, and technology. Core coursework typically includes topics such as systems modeling and simulation, control systems, automation, data analytics, operations research, and software development. Students have opportunities to engage in hands-on projects, internships, and research initiatives that promote practical application of theoretical concepts. The program aims to develop graduates who are proficient in designing, analyzing, and managing integrated systems, with a focus on sustainability, efficiency, and innovation. Collaboration with industry partners and participation in interdisciplinary teams prepare students to meet real-world challenges in system optimization and control. The university's facilities and labs are equipped with state-of-the-art technology to support experiential learning. Graduates of this program are well-positioned for careers in system design, process improvement, data analysis, and technology management, or they may pursue advanced degrees in industrial engineering, systems engineering, or related fields. The curriculum also emphasizes leadership, communication, and teamwork skills vital for professional success. Overall, the program combines theoretical foundations with practical skills to prepare students for leadership roles in the fast-evolving landscape of industrial systems, informatics, and control engineering.