The Safe-T project is a student-designed medical device aimed at improving surgical care accessibility, particularly in regions like India where a significant portion of the population lacks access to safe surgical procedures. A critical component of safe surgical care is reliable anesthesia. In busy urban hospitals, anesthesia providers face challenges in managing patient airways due to high patient volume. Maintaining a patent airway is essential and often requires manual maneuvers by the anesthetist. Glossoptosis, a tongue displacement issue often caused by sedatives, can lead to airway obstruction. The Safe-T device is designed to address this by mimicking the manual airway maintenance maneuvers, thereby freeing up the anesthesia provider's attention to focus on other responsibilities or patients.
This project is part of the Biomedical Engineering Design program, likely a capstone or major project for Master's students.
Graduates from biomedical engineering programs at Johns Hopkins are well-prepared for diverse career paths in healthcare innovation, medical technology, research, and development.
Specific entry requirements for the Master's program in Biomedical Engineering would be found on the general graduate admissions page or the BME department's admissions section.
Johns Hopkins University's Committee on Finance reviews tuition levels annually. For specific fee information, please consult the university's official 'Tuition & Costs' section.
Johns Hopkins University is a leading research institution. Specific program accreditations can be found on the university's academic objectives and outcomes page.
The Safe-T project is a student-designed medical device aimed at improving surgical care accessibility by addressing challenges in maintaining a patient's airway during anesthesia, especially in high-volume settings.
The curriculum includes modules for Year 1 and Year 2, indicating a typical duration of two years for the Biomedical Engineering Design Project, likely a Master's program.
Graduates are prepared for roles such as Medical Device Designer, Biomedical Engineer, Research Scientist, Product Development Specialist, and Clinical Engineer within healthcare innovation and medical technology.
Tuition fees for international students are not specified on the provided pages. Prospective students should consult the university's official 'Tuition & Costs' section for current fee information.
A Bachelor's degree in a relevant field is typically required for Master's level programs in Biomedical Engineering.
International applicants should follow the general graduate admissions process, review specific program requirements, prepare application materials, and submit the online application by the specified deadline, typically in the Fall/Winter for admission the following academic year.