Faculty: Engineering This major provides a comprehensive understanding of the principles and practices of genetics and bioengineering, focusing on the application of engineering principles to biological systems. Students will explore key areas such as genetic engineering, synthetic biology, biomaterials, and biomedical devices. The program emphasizes innovation, problem-solving, and interdisciplinary research to prepare students for careers in biotechnology, healthcare, and environmental engineering. **Learning Objectives:** - Understand the fundamentals of genetics and bioengineering. - Develop skills in genetic manipulation and synthetic biology techniques. - Learn techniques for designing and engineering biomaterials and biomedical devices. - Explore the ethical and societal implications of genetic and bioengineering advancements. - Understand the principles of bioprocessing and industrial applications of bioengineering. - Analyze challenges and opportunities in the fields of genetics and bioengineering. - Develop teamwork and communication skills for collaborative research and development. **Major Outline:** 1. **Introduction to Genetics and Bioengineering** - Overview of genetics, bioengineering, and their applications in various industries. 2. **Molecular Biology and Genetic Engineering** - Study of DNA, RNA, and protein synthesis. - Techniques for gene editing, cloning, and CRISPR technology. 3. **Synthetic Biology** - Principles of designing and constructing new biological parts and systems. - Techniques for creating synthetic organisms and pathways. 4. **Biomaterials and Tissue Engineering** - Fundamentals of designing materials for medical applications. - Techniques for developing artificial tissues and organs. 5. **Biomedical Devices and Instrumentation** - Study of devices such as biosensors, implants, and diagnostic tools. - Techniques for designing and testing biomedical equipment. 6. **Bioprocessing and Industrial Bioengineering** - Principles of large-scale production of biological products. - Techniques for optimizing fermentation and bioreactor processes. 7. **Ethics and Regulatory Issues in Bioengineering** - Exploration of ethical considerations and regulatory frameworks in bioengineering. - Techniques for ensuring responsible innovation and compliance. 8. **Computational Biology and Bioinformatics** - Use of computational tools for analyzing biological data. - Techniques for modeling biological systems and predicting outcomes. 9. **Emerging Trends in Genetics and Bioengineering** - Study of innovations such as personalized medicine, gene therapy, and environmental bioengineering. - Techniques for adapting to new trends and technologies in the field. 10. **Capstone Research Project** - Real-world research project to apply learned skills. - Techniques for delivering a comprehensive bioengineering solution. **Assessment Methods:** - Laboratory experiments and research projects. - Written assignments on genetic engineering, biomaterials, and bioethics. - Group projects and collaborative research exercises. - Participation in internships or fieldwork with biotech companies. **Recommended Textbooks:** - "Principles of Genetics" by D. Peter Snustad and Michael J. Simmons. - "Introduction to Bioengineering" by S.A. Berger, W. Goldsmith, and E.R. Lewis. - "Synthetic Biology: A Primer" by Paul S. Freemont and Richard I. Kitney. - "Biomaterials Science: An Introduction to Materials in Medicine" by Buddy D. Ratner et al. **Prerequisites:** Basic knowledge of biology, chemistry, and mathematics is recommended. Suitable for students in biology, engineering, and related fields. **Major Duration:** Typically 4 years, including laboratory work, research projects, and internships. **Certification:** Graduates may receive a degree in Genetics and Bioengineering or a related field, depending on the program and institution. **Target Audience:** Aspiring geneticists, bioengineers, and researchers seeking to innovate in biotechnology, healthcare, and environmental engineering. This major equips students with the technical, analytical, and research skills needed to excel in genetics and bioengineering, driving advancements in medicine, industry, and sustainability.