A Ph.D. is granted to students after about four years of coursework and research; however, students must have already earned a master’s degree in order to pursue a Ph.D. Earning a Ph.D. recognizes graduates as experts in their specific field, and it can help individuals to achieve their personal and professional goals.
What is a Ph.D. in Biomedical Engineering? This type of program educates students in engineering as well as computer science, mathematics, and life sciences in order to produce graduates who are prepared to be leaders in the field of research, medical engineering, and science. Required classes in this doctorate program usually cover topics such as molecular and cellular bioengineering and quantitative physiology, as well as upper-level engineering and mathematics courses. Depending on the program, students may also need to write and defend their dissertations to an expert panel.
Graduates with Ph.Ds. tend to be incredibly hard working, dedicated, and organized, due to the rigorous coursework involved with earning their degree. Thus, these individuals are usually highly valued in the workplace.
Although a doctorate degree can be earned in about four years of full-time schooling, the actual amount of time it takes to earn a Ph.D. can differ depending on the student, the school, and the specific program. This means the cost can vary as well. Students should properly and thoroughly research any potential schools in order to be aware of the fiscal responsibility of furthering their education.
A scholar who graduates with a Ph.D. in Biomedical Engineering can find employment as a biomedical engineer for research and patent development companies, as a medical device developer, scientific and bioinformatics analyst, research scientist, or as a medical project manager. Other graduates may choose to continue to work in academia, and teach or conduct research at universities.
If you would like to learn more about earning a Ph.D. in Biomedical Engineering, search for your program below and contact directly the admission office of the school of your choice by filling in the lead form.
The doctoral program in Biomedical Engineering is designed to prepare students for a career of creative scholarship by providing a broad but balanced background of knowledge and guidance in the performance of research. This interdisciplinary program provides coursework and research that draw on resources from across the School of Engineering and Applied Science. [+]
The Ph.D. degree in Biomedical Engineering is designed to prepare students for application of engineering principles to problems in medicine and biology; to understand and model attributes of living systems, and to synthesize biomedical systems and devices. The program is strongly interdisciplinary, as students choose from a large array of areas of study across the university. The core faculty expertise includes cancer therapy, cardiac electrophysiology, biosensors, microfluidics, and ultrasound applications in medicine.
The Ph.D. program is based on the main campus in the heart of Washington, D.C., taking full advantage of the proximity to the School of Medicine, the Milken Institute School of Public Health, and the GW Hospital. These interactions are supplemented by collaborations with nearby clinical and research facilities, including Children’s National Health System and federal agencies such as the Food and Drug Administration (FDA) and the National Institutes of Health (NIH). ... [-]
The aim of the Doctorate in Reproduction and Development Sciences is to provide an interdisciplinary and, when possible, international academic professional training program, aimed at preparing highly qualified researchers in the field of biomedical sciences and, particularly, in the maternal and newborn child health area. [+]
The aim of the Doctorate in Reproduction and Development Sciences is to provide an interdisciplinary and, when possible, international academic professional training program, aimed at preparing highly qualified researchers in the field of biomedical sciences and, particularly, in the maternal and newborn child health area. The School mission is to form practitioners able to represent in the future the staff of Universities, IRCCS (Scientific Research Institutes) and other Biomedical Research Institutes and Industries. The Doctorate makes also available the opportunity to be trained in international cooperative research programs in the development of emerging countries. The training program consists of two research areas: Clinical epidemiology and Molecular genetics. The purpose of the Clinical epidemiology school is to enable researchers to carry out clinical trials in the biological and medical field, to validate new guidelines, to propose innovative therapeutic and diagnostic approaches. The aim of the school is also to train researchers to relieve the necessity of people and perform epidemiological surveys to assess the health effects of preventive measures.... [-]
The sub-program Drugs and Biomaterials of the Ph.D. study program Synthesis and Production of Drugs is pursued at three faculties of UCT Prague: Faculty of Chemical Technology, Faculty of Chemical Engineering, and Faculty of Food and Biochemical Technology. [+]
The sub-program Drugs and Biomaterials of the Ph.D. study program Synthesis and Production of Drugs is pursued at three faculties of UCT Prague: Faculty of Chemical Technology, Faculty of Chemical Engineering, and Faculty of Food and Biochemical Technology. The sub-program covers the following research areas: medicinal chemistry, analysis of drugs, the study of the structure of solid pharmaceutical substances, investigation of inorganic and polymeric materials for biomedical applications, process engineering in pharmaceutical industry, and information science in medicinal chemistry. The graduates of the sub-program Drugs and Biomaterials of the Ph.D. study program Synthesis and Production of Drugs gain – according to the orientation of their Ph.D. project and Ph.D. thesis – strong theoretical knowledge and practical skills in aforementioned branches in question.... [-]
Once accepted into either the Ph.D. in Biomedical Science, or the Ph.D. in Biomedical Engineering program, and prior to the identification of a dissertation mentor, students will be advised by the First Year Advisory Committee (FYA). [+]
Advising and Planning for the First Year
Orientation for new graduate students will be scheduled the week before the start of the Fall semester. New students should plan to attend. Once accepted into either the Ph.D. in Biomedical Science, or the Ph.D. in Biomedical Engineering program, and prior to the identification of a dissertation mentor, students will be advised by the First Year Advisory Committee (FYA). There is an FYA committee member at each partner institution. Issues and questions relating to laboratory rotations and coursework should be discussed with an FYA committee member. This FYA faculty member will maintain a role as an informal advisor and graduate student advocate and will offer guidance throughout the student’s program, as necessary. Questions or issues regarding registration for classes should be directed to the GSBSE office. By the time the student has completed three rotations she/he will have chosen a home laboratory and assembled a dissertation committee. The role of advising in the academic programs will then fall to the mentor.... [-]
At the end of this qualification, students will have produced a research thesis. [+]
At the end of this qualification, students will have produced a research thesis.Admission requirements
MTech Biomedical Technology or equivalent qualification.Contact details
Name: Ms Ingrid van der Westhuyzen Tel: 011 559 6263 / Email: email@example.com[-]