Faculty: Graduate School of Science and Engineering This interdisciplinary major combines biomedical engineering with bioinformatics, focusing on the application of engineering principles and computational methods to solve biological and medical problems. Students explore key areas such as biomaterials, biomechanics, bioinstrumentation, genomics, and data analysis. The program emphasizes technical skills, innovative thinking, and the application of engineering and computational principles to advance healthcare and biological research. Graduates are prepared for careers in medical device development, biotechnology, pharmaceuticals, and research institutions. **Learning Objectives:** - Understand the fundamentals of biomedical engineering and bioinformatics. - Develop skills in designing and developing medical devices and bioinstrumentation. - Learn techniques for analyzing biological data and genomics. - Explore the role of computational methods in biological research and healthcare. - Understand regulatory standards, ethical considerations, and safety in biomedical engineering. - Analyze challenges and opportunities in biomedical engineering and bioinformatics. - Develop teamwork and problem-solving skills for interdisciplinary projects. **Major Outline:** 1. **Introduction to Biomedical Engineering and Bioinformatics** - Overview of biomedical engineering and bioinformatics. - Fundamentals of engineering principles, biological systems, and computational methods. 2. **Biomaterials and Biomechanics** - Principles of biomaterials, including tissue engineering and biocompatibility. - Techniques for analyzing biomechanical systems and designing biomedical devices. 3. **Bioinstrumentation** - Fundamentals of bioinstrumentation, including sensors, signal processing, and medical imaging. - Techniques for designing and developing bioinstrumentation for medical applications. 4. **Genomics and Bioinformatics** - Principles of genomics, including DNA sequencing, gene expression, and genetic analysis. - Techniques for analyzing and interpreting genomic data using bioinformatics tools. 5. **Biological Data Analysis** - Methods for collecting, processing, and analyzing biological data. - Techniques for applying statistical and computational methods to biological research. 6. **Medical Device Design** - Principles of medical device design, including regulatory requirements and safety standards. - Techniques for designing, prototyping, and testing medical devices. 7. **Regulatory Standards and Ethical Considerations** - Understanding regulatory standards, ethical considerations, and best practices in biomedical engineering. - Techniques for ensuring compliance with regulatory standards and promoting ethical practices. 8. **Emerging Trends in Biomedical Engineering and Bioinformatics** - Analysis of innovations such as personalized medicine, synthetic biology, and AI in healthcare. - Techniques for adapting to new trends and technologies in the field. 9. **Capstone Project in Biomedical Engineering and Bioinformatics** - Real-world project to apply learned skills in designing medical devices, analyzing biological data, or developing bioinformatics tools. - Techniques for delivering a comprehensive solution to biomedical engineering and bioinformatics challenges. **Assessment Methods:** - Medical device design projects, genomics analyses, biological data analysis reports, research papers, group projects, and internships. **Recommended Textbooks:** - "Biomedical Engineering Principles" by Joseph D. Bronzino. - "Bioinformatics: Sequence and Genome Analysis" by David W. Mount. - "Introduction to Bioinformatics" by Arthur Lesk. - "Medical Device Design" by Geoffrey W. Dobson. **Prerequisites:** Basic knowledge of biology, mathematics, engineering principles, and computational methods. Suitable for students in biomedical engineering, bioinformatics, biological sciences, and related fields. **Major Duration:** Typically 4 years for a bachelor's degree, including coursework, projects, and internships. Advanced degrees may take additional years. **Certification:** Graduates may receive a degree in Biomedical Engineering and Bioinformatics and pursue professional certifications such as Certified Biomedical Equipment Technician (CBET) or Certified Professional in Healthcare Information and Management Systems (CPHIMS). **Target Audience:** Aspiring biomedical engineers, bioinformaticians, medical device developers, and researchers seeking to specialize in biomedical engineering, bioinformatics, and healthcare technology. This major equips students with the technical, analytical, and practical skills needed to excel in biomedical engineering and bioinformatics, supporting advancements in healthcare technology, biological research, and medical innovation.