Our Medical Billing and Coding course provides students with the required information in a clear and comprehensive manner. In addition, students will be introduced to the latest code sets and guidelines and important topics such as managed care, legal and regulatory issues, coding systems, reimbursement methods, medical necessity, and common health insurance plans.

NOVA Biomedical Research is a master's programme of NOVA Medical School that will equip you with the core skills required for an outstanding career in Biomedical research. We offer a unique training programme that will prepare you to plan, conduct, publish and obtain funding to support a successful research career. The curriculum of the NBR is based on advanced training courses, seminars and tutorials that provide the core skills that are required to anyone wishing to pursue a career in science. Alongside, you will also have the opportunity to specialise in one of the four branches of the course: Ageing and Chronic Diseases, Neurosciences, Oncology and Regenerative Medicine.

The MS program is a 32-credit program designed to prepare future experts with solid grasp of principles underlying research core operation and its relevance to an array of biomedical problems, as well as with technical skills to implement these technologies. Core courses include theory and research including flow cytometry, imaging, metabolic function, or proteomics, in addition to electives offered in areas related to Science Behind Technology, Business Management, and Clinical/Translational Research.

The Advanced Master in Biotech & MedTech Ventures helps you develop the skill set needed to manage early-stage, tech-driven companies. You will acquire a deep understanding of what it takes to develop an innovative idea into a market-ready product, how to attract the necessary funding, and how to build a successful business from both a strategic and an organizational perspective.

Graduates with degrees in pharmacology, medicine, engineering, and the life sciences are finding a challenging and changing landscape when it comes to their careers. Companies are increasingly searching for people who are not only strong technically, but can also understand, lead, and manage different business functions. This requires a broad skillset and a practical mentality, which is becoming harder and harder to find.

Modern medicine has given rise to the development of a wide range of novel engineering solutions to clinical problems. Examples of these developments vary from orthopaedic implants such as total hip replacements to cardiovascular implants such as coronary stents (small wire scaffolds inserted into the blood vessels around the heart). As a result of the increased collaboration between engineers and doctors, the new discipline of biomedical Engineering developed. Biomedical Engineering is the fastest growing area of Engineering.

Study programme aims at preparing professionals who would acquire the skills and knowledge to close the gap between engineering and medicine by combining the design and problem-solving skills of engineering with medical biological sciences and to advance health care services through the application of engineering principles and design concepts, innovative technologies and methods of multidisciplinary research.

If you’re ready to meet tomorrow's complex medical challenges and new approaches, then this is the Master’s program for you. It offers you the unique opportunity to combine scientific subjects with practical application and fundamental research in a clinical setting.

The aim of the course is to prepare graduates with good biomedical culture, with in-depth knowledge of biotechnology, acquired and consolidated on an important practical experience in the laboratory. Graduates are able to design and organize effective research plans with autonomy, in the field of biotechnology applied to medicine;

This program combines fundamental concepts and knowledge in engineering, biology, and medicine to develop innovative technologies, materials, processes, and systems, with the aim of improving healthcare.

The Master's degree program in Computational biomedicine at SDU has a focus on applied computational projects associated with the health sector and the biotech and pharmaceutical industries.

The objective of the master’s degree program is to prepare a student for research and development careers in biomedical industry and further research at the doctorate level. Students completing their MS degrees will graduate with a high level of competence in:

The practice of biomedical engineering has a long history. One of the earliest examples is a wood and leather prosthetic toe found on a 3,000-year-old Egyptian mummy. Before that, even simple crutches and walking sticks were a form of engineered assistive devices, and the first person to fashion a splint for a broken bone could be considered to have been an early biomedical engineer. 

An ageing population and rising health care costs caution us that the health care system must constantly improve. The recent COVID-19 pandemics makes this need even more evident. We have to find new effective ways to diagnose, prevent and treat diseases, and this requires innovative biomedical solutions and technologies.

The master's degree in Biomedical Engineering provides advanced training in various aspects of the discipline. It provides the foundations for academic or professional specialization and an introduction to applied research. Essentially, the course is designed to complement and reinforce the training of graduates in biomedical engineering.