University of Illinois Urbana-Champaign Campus
Master of Science
On Campus
University of Illinois Urbana-Champaign Logo
University of Illinois Urbana-Champaign
Champaign
United States

Biomedical Image Computing

About

The Master of Science in Biomedical Image Computing is a one year full time program designed for students who want to specialize in computational methods for analyzing and interpreting biomedical images. The curriculum combines theoretical knowledge with hands on applications, enabling learners to work with medical imaging technologies, process complex datasets, and develop algorithms for diagnostics and research. Students gain expertise in image processing, machine learning, medical imaging analysis, and research methodologies, equipping them to contribute to healthcare technology, clinical research, and biomedical innovation. The program structure balances academic study with practical laboratory and computational work, preparing graduates to solve complex challenges in biomedical imaging and data analysis.

The program also emphasizes interdisciplinary approaches by integrating computer science, engineering, and biomedical sciences. Students engage in laboratory experiments, computational modeling, collaborative projects, and research studies guided by experienced faculty. Access to advanced imaging labs, software tools, and professional networks enhances both technical skills and theoretical understanding. By the end of the program, graduates develop competencies in algorithm development, image interpretation, data analysis, and research application, positioning them for careers in biomedical research, clinical technology, and computational healthcare solutions.

Key information

Duration
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Tuition fee
$39,344.00/year
Start dates & application deadlines
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More details
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Key Facts

  • Program Title: Biomedical Image Computing
  • Degree Type: Master of Science
  • Duration: 1 year
  • Mode of Study: Full-time, On Campus
  • Application Deadline: 30 June 2026
  • Location: University of Illinois Urbana-Champaign, United States
  • Field of Study: Bio & Biomedical Engineering
  • Language of Instruction: English

Program Structure

Semester 1 - Foundations in Biomedical Image Computing
• Principles of Biomedical Imaging
• Image Processing and Analysis
• Research Methods in Biomedical Engineering
• Computational Techniques in Engineering

Semester 2 - Advanced Applications in Biomedical Imaging
• Machine Learning for Biomedical Images
• Imaging Algorithms and Modeling
• Data Analysis and Visualization
• Independent Research Project or Professional Portfolio

Career Opportunities

Graduates of this program are prepared for professional roles in biomedical engineering, medical imaging technology, research institutions, and healthcare technology companies. Many work in medical imaging firms, research laboratories, healthcare technology organizations, and biomedical consulting companies, developing algorithms, analyzing medical images, and supporting clinical research. Additional opportunities exist in computational biology, diagnostics, artificial intelligence applications in healthcare, and academic research. The program’s emphasis on applied research, technical expertise, and interdisciplinary knowledge equips graduates to advance medical imaging technologies and contribute to innovations in clinical and computational healthcare.

Why Choose This Program

Students choose this program because it combines biomedical imaging expertise, computational analysis skills, machine learning applications, and applied research competence, providing a strong foundation for careers in healthcare technology and biomedical research. The curriculum emphasizes hands on computational projects, algorithm development, and interdisciplinary collaboration while fostering critical thinking and technical problem solving. With guidance from experienced faculty, access to advanced imaging laboratories, and exposure to real world biomedical challenges, students strengthen both professional competence and analytical insight. This program is particularly appealing to individuals who aim to develop medical imaging algorithms, conduct computational research, implement innovative diagnostic solutions, and contribute to technological advancements in biomedical engineering.