Krishnan Shankar M
Annu Int Conf IEEE Eng Med Biol Soc. 2014;2014:5145-8. doi: 10.1109/EMBC.2014.6944783.
There is a proliferation of medical devices across the globe for the diagnosis and therapy of diseases. Biomedical engineering (BME) plays a significant role in healthcare and advancing medical technologies thus creating a substantial demand for biomedical engineers at undergraduate and graduate levels. There has been a surge in undergraduate programs due to increasing demands from the biomedical industries to cover many of their segments from bench to bedside. With the requirement of multidisciplinary training within allottable duration, it is indeed a challenge to design a comprehensive standardized undergraduate BME program to suit the needs of educators across the globe. This paper's objective is to describe three major models of undergraduate BME programs and their curricular requirements, with relevant recommendations to be applicable in institutions of higher education located in varied resource settings. Model 1 is based on programs to be offered in large research-intensive universities with multiple focus areas. The focus areas depend on the institution's research expertise and training mission. Model 2 has basic segments similar to those of Model 1, but the focus areas are limited due to resource constraints. In this model, co-op/internship in hospitals or medical companies is included which prepares the graduates for the work place. In Model 3, students are trained to earn an Associate Degree in the initial two years and they are trained for two more years to be BME's or BME Technologists. This model is well suited for the resource-poor countries. All three models must be designed to meet applicable accreditation requirements. The challenges in designing undergraduate BME programs include manpower, facility and funding resource requirements and time constraints. Each academic institution has to carefully analyze its short term and long term requirements. In conclusion, three models for BME programs are described based on large universities, colleges, and community colleges. Model 1 is suitable for research-intensive universities. Models 2 and 3 can be successfully implemented in higher education institutions with low and limited resources with appropriate guidance and support from international organizations. The models will continually evolve mainly to meet the industry needs.
全球范围内用于疾病诊断和治疗的医疗设备不断增加。生物医学工程(BME)在医疗保健和推动医学技术发展方面发挥着重要作用,因此在本科和研究生层面都对生物医学工程师产生了大量需求。由于生物医学行业的需求不断增加,要求涵盖从实验室到临床的多个领域,本科课程数量激增。鉴于需要在可分配的时间内进行多学科培训,设计一个全面的标准化本科BME课程以满足全球教育工作者的需求确实是一项挑战。本文的目的是描述本科BME课程的三种主要模式及其课程要求,并提出适用于不同资源环境下高等教育机构的相关建议。模式1基于大型研究密集型大学提供的课程,有多个重点领域。重点领域取决于该机构的研究专长和培训任务。模式2的基本部分与模式1相似,但由于资源限制,重点领域有限。在这个模式中,包括在医院或医疗公司的合作实习/实习,这为毕业生进入职场做好准备。在模式3中,学生在最初两年接受培训以获得副学士学位,然后再接受两年培训成为生物医学工程师或生物医学技术人员。这个模式非常适合资源匮乏的国家。所有三种模式都必须设计成符合适用的认证要求。设计本科BME课程面临的挑战包括人力、设施和资金资源要求以及时间限制。每个学术机构都必须仔细分析其短期和长期要求。总之,本文描述了基于大型大学、学院和社区学院的BME课程的三种模式。模式1适用于研究密集型大学。模式2和模式3可以在资源少且有限的高等教育机构中,在国际组织的适当指导和支持下成功实施。这些模式将主要为满足行业需求而不断发展。