This graduate-level course focuses on the theory of computation and algorithmic lower bounds, specifically exploring techniques for proving hardness in computational problems. The material covers fundamental concepts in complexity theory and delves into practical applications through hardness proofs in various game scenarios. It is designed for students with a strong background in theoretical computer science.
The course structure includes lectures, problem sets with solutions, and project work. Access to lecture videos, notes, and instructor insights is provided.
Graduates from related programs often pursue careers in research and development, academia, and advanced roles in the technology sector, focusing on algorithm design, computational complexity, and theoretical computer science.
Tuition and living costs are not specified for this individual course. For general graduate program costs at MIT, please refer to the MIT Admissions and Financial Aid websites.
The application window for graduate programs is typically from October 1st to December 1st, with December 1st being the deadline for fullest consideration.
This graduate-level course is designed for students with a strong background in theoretical computer science and mathematics.
You apply online through the MIT admissions portal, completing application forms, submitting transcripts, writing a statement of purpose, arranging for recommendations, and providing English proficiency test scores if applicable.
Tuition and living costs are not specified for this individual course. For general graduate program costs at MIT, please refer to the MIT Admissions and Financial Aid websites.
Graduates often pursue careers in research and development, academia, and advanced roles in the technology sector, focusing on algorithm design, computational complexity, and theoretical computer science.
MIT offers Departmental Fellowships, Research Assistantships (RA), and Teaching Assistantships (TA) for eligible graduate students, which can cover tuition and provide a monthly stipend.