In the Master’s Degree Programme in Biomedical Imaging, students will gain an understanding of the theoretical and practical processes of a wide range of biomedical imaging technologies, with a heavy focus on the interdisciplinary nature of the field. The mandatory courses in the biomedical imaging programme cover a range of subjects from microscopic applications to cell biology, anatomy and physiology, nanomedicine or biophysics.

Contribute to better healthcare by designing and developing medical innovations for improved diagnostics, treatment, rehabilitation, prevention, and a better quality of life. Can you think of friendlier, less painful, or less harmful methods to detect breast cancer, or to perform an endoscopy? Can you pave the way for animal-free drug testing by developing mini organ-on-a-chip models, that can mimic an actual human organ, like a heart or liver? And what about detecting complex diseases like Parkinson’s or Alzheimer’s at an early stage, or developing an exoskeleton to train paralyzed patients to walk?

This program aims to form "genome data scientists", that is, graduates that will have an adequate knowledge about the molecular basis of biological systems; the structure and function of biological molecules and how they participate in cellular processes; the technologies and platforms for the analysis of genomes; the tools for bioinformatics and genomic analysis; and the statistical and computational methodologies for the analysis of biomolecular data.

The MSGDA program equips students for careers in genomic data analytics through coursework in human genetics, applied life sciences, and human genomics. Collaborate with genetic counselors and scientists, gaining hands-on experience with technologies shaping the future of medicine.

The Teaching Division of Biomedical Sciences offers a wide range of specialization tracks, combining research and studies in medical and life sciences with emphasis on understanding the functioning of the human body in situations of health and disease. The program prepares its graduates for teaching and research positions in academic institutions, and research and works in knowledge-intensive industries, hospitals, and healthcare systems.

The past decade has seen enormous advances in molecular and biomedical technology resulting in an ‘omics’ revolution. Bioinformatics (health data science) covers the application of mathematics, statistics and computing (including AI and machine learning) to biological and clinical scenarios. Algorithms and software tools are used to understand and interpret patient-derived ‘Big Data’

The past decade has seen enormous advances in molecular and biomedical technology resulting in an ‘omics’ revolution. Bioinformatics covers the application of mathematics, statistics and computing to biological and clinical scenarios. Algorithms and software tools are used to understand and interpret patient-derived ‘Big Data’.

The goal of this program is to educate specialists for research, development, education, business, and the public sector to solve problems in modern biomedical sciences, environment, and ecology. You will gain a good knowledge of general principles of operation and pathology in live systems, the capabilities, and limitations of modern biophysical methods, principles of data analysis, and planning of the scientific investigation.

Gain a detailed understanding of contemporary microbiology – researching the industrial, commercial and medical aspects of the discipline.

The Master’s Degree in Biomedical Sciences aims to provide students with a high-quality education of international standing so that they can develop a deep understanding of their science and versatile thinking, something critical for their professional career in the modern environment.

Biomedical image computing is a large, rapidly growing industry and research field comprising the formation and analysis of diagnostic images. Both image system design and biomedical image analysis currently are being revolutionized at a tremendous rate by the emergence of machine learning techniques. This Master of Science in Biomedical Image Computing degree addresses the need for efficient, rigorous training focused at the intersection of biomedical imaging science, high-performance computing, and machine learning.

Do you want to develop your ability to independently solve problems, conduct experiments, and analyse, process and critically evaluate results? This master's programme provides you with important knowledge in the field of biomedicine with a focus on human genetics and advanced biomedical and digital tools.

This programme offers a strong foundation for understanding the evolutionary processes that shape the genomic variation of populations. You will learn to use DNA sequencing technologies and bioinformatics tools to handle large amounts of data, understand what drives the evolution of populations and species, and address questions in biodiversity conservation.

The MS in Biophotonics at Tufts School of Engineering provides a broad curriculum that encompasses the design, engineering, and use of optical tools for diagnostics and therapeutics, advanced microscopes, and more. The program is administered by the Department of Biomedical Engineering with additional support from the Department of Electrical and Computer Engineering and the Data Intensive Studies Center.

The Master of Science in Applied Biomedicine(MSc-ABM), perhaps the first program of its kind in Asia, has a critical role in light of the recent pandemic and future healthcare crises. The MSc-ABM equips students with skills to combat emerging infectious diseases, develop vaccines and immunotherapies, and design drugs. It aims to develop students in their critical and analytical thinking in the complex and evolving healthcare landscape; training them to be resourceful and adaptable independent learners and leaders in the biomedical workforce.