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Roles for learning sciences and learning technologies in biomedical engineering education: a review of recent advances.

Education in biomedical engineering offers a number of challenges to all constituents of the educational process-faculty, students, and employers of graduates. Although biomedical engineering educational systems have been under development for 40 years, interest in and the pace of development of these programs has accelerated in recent years. New advances in the learning sciences have provided a framework for the reexamination of instructional paradigms in biomedical engineering. This work shows that learning environments should be learner centered, knowledge centered, assessment centered, and community centered. In addition, learning technologies offer the potential to achieve this environment with efficiency. Biomedical engineering educators are in a position to design and implement new learning systems that can take advantage of advances in learning science, learning technology, and reform in engineering education.

Biomedical Engineering↗

Focus on: Newark Beth Israel Medical Center Biomedical Engineering Department.

This paper describes the Biomedical Engineering Department of Newark Beth Israel Hospital. This hospital's extensive involvement in research, heart transplantation, and special technologies has placed unusual demands on the Biomedical Engineering Department because of the large volume of routine and specialized equipment involved. The 12-person Department is responsible for servicing over 2700 pieces of equipment in 91 various hospital departments, and also offers its services to other local hospitals. Established in 1970, the Department uses a computerized biomedical equipment database program to manage data for repairs, preventive maintenance, and electrical safety.

Academic Medical Centers↗

Mapping the world of biomedical engineering: Alza lecture (1985).

The key research areas of biomedical engineering are identified and analyzed. It is demonstrated how biomedical engineering fits into the world map of science. An analysis of biomedical engineering core journals provides statistical data about citation patterns in this discipline.

Abstracting and Indexing↗

The University of Connecticut Biomedical Engineering Mentoring Program for high school students.

For the past four years, the Biomedical Engineering Program at the University of Connecticut has offered a summer mentoring program for high school students interested in biomedical engineering. To offer this program, we have partnered with the UConn Mentor Connection Program, the School of Engineering 2000 Program and the College of Liberal Arts and Sciences Summer Laboratory Apprentice Program. We typically have approximately 20-25 high school students learning about biomedical engineering each summer. The mentoring aspect of the program exists at many different levels, with the graduate students mentoring the undergraduate students, and these students mentoring the high school students. The program starts with a three-hour lecture on biomedical engineering to properly orient the students. An in-depth paper on an area in biomedical engineering is a required component, as well as a PowerPoint presentation on their research. All of the students build a device to record an EKG on a computer using LabView, including signal processing to remove noise. The students learn some rudimentary concepts on electrocardiography and the physiology and anatomy of the heart. The students also learn basic electronics and breadboarding circuits, PSpice, the building of a printed circuit board, PIC microcontroller, the operation of Multimeters (including the oscilloscope), soldering, assembly of the EKG device and writing LabView code to run their device on a PC. The students keep their EKG device, LabView program and a fully illustrated booklet on EKG to bring home with them, and hopefully bring back to their high school to share their experiences with other students and teachers. The students also work on several other projects during this summer experience as well as visit Hartford Hospital to learn about Clinical Engineering.

Biomedical Engineering↗

The professional development degree for biomedical engineers.

This paper examines the role of biomedical engineers in terms of their influence on the quality of health care delivery, and their need to continue their education in an effort to keep pace with technological advancements and prepare for career changes. This paper also examines the role of the Professional Development Degree for Engineers as one alternative to traditional degree programs, and describes one biomedical engineer's experience with a PDD program.

Biomedical Engineering↗

Veterans administration biomedical engineer training program.

The Veterans administration's Department of Medical and Surgery includes in its Graduate Engineer Training Program a special program for Biomedical Engineers. The program is intended for recent graduates in biomedical engineering and provides for the VA a means of recruiting and training biomedical engineers for employment in its medical centers nationwide. This paper discusses the structure and objectives of the program, the opportunities that exist for the trainee within the program and the results of the program since its inception in 1973, and provides an outlook on the future of the program.

Biomedical Engineering↗

JNER: a forum to discuss how neuroscience and biomedical engineering are reshaping physical medicine & rehabilitation.

Advances in neuroscience and biomedical engineering deeply affect the clinical practice of physical medicine & rehabilitation. New research findings and engineering tools are continuously made available that have the potential of dramatically enhancing the ability of clinicians to design effective rehabilitation interventions. This quickly evolving research field is difficult to track because related literature appears in a wide range of scientific journals. There is a need for a scientific journal that offers to its readership a forum at the intersection of neuroscience, biomedical engineering, and physical medicine & rehabilitation. The Journal of NeuroEngineering and Rehabilitation (JNER) is intended to fill this gap and foster cross-fertilizations among these disciplines. By making readily available to clinicians selected studies with potential impact on physical medicine & rehabilitation, JNER is anticipated to foster the development of novel and more effective rehabilitation strategies. Conversely, by presenting clinical problems to a readership of neuroscientists and engineers, JNER is expected to generate innovative work in neuroscience and biomedical engineering with future applications to physical medicine & rehabilitation. JNER will leverage on Open Access as a means to guarantee that its content is readily available to scientists, clinicians, and the general public thus promoting scientific and technological advances that are relevant to rehabilitation. JNER is an Open Access initiative. Open Access assures dissemination to the widest possible audience and is seen by many as essential for publicly funded research. BioMed Central offers an outstanding platform to make JNER possible and allow neuroscientists, biomedical engineers, and clinicians to see their work published in a timely manner and thus make an immediate impact in the field of rehabilitation. JNER will focus on innovative work with higher likelihood of a dramatic impact on rehabilitation. Thus, priority will be given to outstanding and visionary scientific reports, i.e. those proposing exceptionally innovative concepts with great potential in the field.

Journal Article↗

Biomedical engineering--education & industry: an Australian perspective.

Biomedical Engineering education requires a multidisciplinary approach. To achieve satisfactory results from biomedical undergraduate courses, the development of longer programmes incorporating the life sciences and formal hospital or scientific and medical industry-based clinical experience programmes is needed. The B.Sc./B.E. five-year, combined-degree satisfies these requirements. Undergraduate programmes should be supported by parallel postgraduate programmes. A postgraduate engineering master's programme, by coursework and minor thesis, formulated in collaboration with professional groups and designed to be presented within a hospital or scientific medical industry environment, is required by industry. These education programmes need to be supported by a research (Ph.D and engineering master's with major thesis), hospital and industry infrastructure, which may take the form of a "Centre for Biomedical Engineering."

Allied Health Occupations↗

Biomedical engineering and the whitaker foundation: a thirty-year partnership.

The Whitaker Foundation, established in 1976, will close in 2006. It will have made awards totaling 805 million US dollars, with over 710 million US dollars in biomedical engineering. Close to 1,500 faculty members received research grants to help them establish academic careers in biomedical engineering, and over 400 graduate students received fellowship support. The Foundation also supported the enhancement or establishment of educational programs in biomedical engineering, especially encouraging the formation of departments. The number of biomedical engineering departments almost tripled during the past 10 years, now numbering close to 75. Leveraging of grants enabled the construction of 13 new buildings. With the field firmly established, the grant program supporting new faculty members will be the one missed the most. New opportunities, however, are emerging as interdisciplinary research is being embraced by both public and private funding sources. The life sciences will be increasingly incorporated into all areas of engineering, and it is expected that such "biofication" will pose both opportunities and challenges to biomedical engineering.

Biomedical Engineering↗

Education and certification of biomedical engineers in Canada.

The education of biomedical engineers in Canada is discussed, with reference to the Canadian health care system and related industry. Information on specific educational programmes, with enrollment data, is presented. The paper concludes with brief comments on the certification of clinical engineers in Canada.

Biomedical Engineering↗

Biomedical engineering in cardiology.

There are numerous and quite controversial opinions on what should be covered by the term 'biomedical engineering'. Therefore, it seems necessary to define and reflect on what biomedical engineering really means. Our definition is: biomedical engineering is the application of engineering sciences in clinical medicine. Several examples of 10 years of cooperation between engineers and physicians in Aachen are presented under the confines of the above definition.

Animals↗

Innovative communication in a biomedical engineering department.

Effective communication is one of the most important and often overlooked components of the functioning of a biomedical engineering department. The Biomedical Engineering Department (Biomed) at the VA Medical Center, Boston, Massachusetts uses innovative methods and resources to improve communication between Biomed and the Medical Center staff. While some changes have dealt directly with the information content communicated by Biomed, many improvements have also been made to the format in which information and ideas are presented. The latter changes serve the purpose of improving communication by ensuring that the presented information is both understood and retained. Improvements have been made in the areas of operator training, alerting users to actual and potential hazards and recalls, and staff education concerning Biomed's role in the Medical Center and the availability of Biomed to assist in technology issues.

Audiovisual Aids↗

Focus on: Multicare Medical Center Biomedical Engineering Department.

This paper describes the Biomedical Engineering Department of Multicare Medical Center (Tacoma, WA), a multiple hospital group consisting of Tacoma General Hospital, Mary Bridge Children's Hospital, and Doctors Pavilion. The Department maintains over 4300 separate medical devices, with a replacement value in excess of $20,000,000, and has written its own software program for inventory control and PM scheduling. In addition to the standard tasks, this Department maintains the CT, Rolm VL PBX, anesthesia gas machines, and all of the equipment in Diagnostic Radiology, and performs environmental gas monitoring.

Biomedical Engineering↗

Effective communication and supervision in the biomedical engineering department.

It is important for biomedical engineering supervisors to master the art of effective communication. Supervisors who have effective communication skills can successfully initiate creative programs and generate a harmonious working atmosphere. Using effective communication, they can promote good working conditions, such as high morale, worker initiative and loyalty to the department, which are almost impossible to measure but imperative for a successful department. However, effective communication tends to be neglected by supervisors who are either functional specialists or managerial generalists. This paper presents several cases of what effective communication truly is and discusses some potential factors that may lead to ineffective communication.

Biomedical Engineering↗

Biomedical engineering. A means to add new dimension to medicine and research.

Biomedical engineering is an evolving science that seeks to insert technically oriented and trained personnel to assist medical professionals in solving technological problems in the pursuit of innovations in the delivery of health care. Consequently, engineering solutions are brought to bear on problems that previously were outside the training of physicians and beyond the understanding or appreciation of the conventionally educated electrical or mechanical engineers. This physician/scientist/engineer team has a capability to extend medicine and research far beyond the capability of a single entity operating alone. How biomedical engineering has added a new dimension to medical science at the Kennedy Space Center is described.

Adaptation, Physiological↗

Opportunities for the cellular approach in biomedical engineering.

This review is a commentary on recent, altered perspectives about biomedical engineering and its role in medicine. It is argued that, rather than being a peripheral specialty, medical engineering and engineering principles in general have a direct application to biochemical medicine and cell biology. A brief description is given of the cell as a compartmentalised reactor system, and the ways in which it is possible to replace lost or aberrant cell function. Specific topics are then covered to illustrate the general thesis. These are: polymers for cell mimicry, cell-surface interactions, biomolecule transport, cell transport phenomena, cell signalling, harnessing of cells for therapy and microbial interactions. These disparate subject areas have a common thread of interest for the biomedical engineer, and are presented here in a way which highlights key points of relevance for engineering. Though necessarily brief, the various descriptions in this review provide a film indication that a rigorous approach to the assessment, modelling and use of cells along sound engineering lines is vital for the future. It is concluded that, without this approach, our understanding of cell biology will remain semiquantitative and semiempirical.

Biological Transport↗

[Scientometrics and bibliometrics of biomedical engineering periodicals and papers].

This investigation was made to reveal the current status, research trend and research level of biomedical engineering in Chinese mainland by means of scientometrics and to assess the quality of the four domestic publications by bibliometrics. We identified all articles of four related publications by searching Chinese and foreign databases from 1997 to 2001. All articles collected or cited by these databases were searched and statistically analyzed for finding out the relevant distributions, including databases, years, authors, institutions, subject headings and subheadings. The source of sustentation funds and the related articles were analyzed too. The results showed that two journals were cited by two foreign databases and five Chinese databases simultaneously. The output of Journal of Biomedical Engineering was the highest. Its quantity of original papers cited by EI, CA and the totality of papers sponsored by funds were higher than those of the others, but the quantity and percentage per year of biomedical articles cited by EI were decreased in all. Inland core authors and institutions had come into being in the field of biomedical engineering. Their research topics were mainly concentrated on ten subject headings which included biocompatible materials, computer-assisted signal processing, electrocardiography, computer-assisted image processing, biomechanics, algorithms, electroencephalography, automatic data processing, mechanical stress, hemodynamics, mathematical computing, microcomputers, theoretical models, etc. The main subheadings were concentrated on instrumentation, physiopathology, diagnosis, therapy, ultrasonography, physiology, analysis, surgery, pathology, method, etc.

Authorship↗