Introduction The Department of Bioscience & Bioengineering aspires to cater to the technological requirements of the country by conducting high-quality, translatable Bioengineering research. The biological world is full of natural wonders beginning from microscopic bacteria to multicellular organisms. Using a reductionist approach, each organism can be broken down into its subsystems, which continue to provide us with new knowledge on how evolution has perfected these systems over millenia. Conversely, one can also take a systems biology approach and appreciate the whole organism as a system that grows and continuously adapts to the environment. Beginning from thermodynamically efficient cellular systems to the molecular motors of the flagellar motor, each product of evolution is an optimized engineering design which can be translated into real-life applications across disciplines. Furthermore, the call for support from today s data-driven biology has been answered by advancements in computational biology that permit solving biology problems using artificial intelligence and machine learning approaches. Genomics, proteomics, transcriptomics and metabolomics have transformed the landscape of infectious and non-infectious diseases allowing development of new diagnostic measures as well as therapeutics. In combination with active contribution from Electronic, Mechanical, Materials engineering, implantable sensor and support devices that are bio-compatible have significantly contributed to extending the healthy lifespan of the human race. Objective of the Program To produce professionals with deep knowledge and innovative analytical and Bioengineering research skills to handle problems in a. variety of domains including healthcare, Energy & Environment, and Food & Agriculture. The approaches are largely data driven by OMICS, Imaging for diagnostics& Therapeutics, Systems & Computational Biology, Environment, food & Agriculture Biotechnology. Expected Graduate Attributes 1. Students will be imparted skill set to be absorbed in Biomedical & Biotechnology industries, Pharmaceutical companies, Research labs and Academic institutions at the global level. 2. Students will be sensitized and prepared to develop next generation Technologies catering to healthcare, energy, environment, and agriculture. 3. Students will gain extensive hands on experiences by the virtue of advanced lab courses and project. 4. Students will be motivated towards research outputs primarily based on development of products and/or processes having commercial applicability and/or high impact research communications in the form of patents/publications. 5. Ability to innovate and contribute towardHigh quality technical communication skillss next generation technology development 6. Appreciation and adherence to norms of professional ethics 7. Ability to plan and manage technical projects Learning Outcome 1. Strong Understanding of fundamentals of Cell and Molecular Biology, Microbiology, Human Physiology, Plant Pathology, Systems Biology, Computational Biology, genetic and metabolic engineering, Physics and design of instrumentation used in multiomics, Imaging, and sensors &control. 2. Basic understanding of Image acquisition, processing, and Interpretation. 3. Basic understanding of data collection through OMICS approach, pre-processing, computational analysis, statistical analysis, database generation, and Algorithm development. 4. Skill set to develop diagnosis, therapeutics, Biofuel technologies, Bioremediation, crop protection, and food preservation using Big Data.
