two-course, team-based, experimental research capstone sequence. The goal of thedevice design capstone is to advance intellectual property while providing a multidisciplinarydesign experience. In the first course of the sequence, the teams are presented with a clinicalproblem and are expected to conceive, design, prototype and evaluate devices with innovativesolutions. The course emphasizes information gathering, establishing requirements, conceptdevelopment, and evaluation. In the second course in the sequence, a verification plan isgenerated and implemented. The goal of the experimental research capstone sequence is tointroduce students to the design and conduct of a pilot study involving human subjects. To thisend, students develop a
between technological progress on the one hand, and existinglimitations in educational and socioeconomic resources on the other, a varied number ofvisionary frameworks and strategic plans have been put forth by commissions of theAccreditation Board of Engineering and Technology (ABET)1, the National Academy ofEngineering (NAE)2, and the National Science Foundation (NSF)3. A strong, consistentrecommendation in these reports is the need for engineering graduates to have professionaldevelopment, or “soft” skills. The visions of these reports have particular relevance tobioengineering, a discipline whose explosive international growth is generating abundant careerdevelopment, professional development, and humanitarian development opportunities
will operate. The external mentor is expected to give feedback which shouldbe incorporated into future prototypes and the final functional deliverable.Device BenchmarkingThe students must develop a benchmarking plan to assess whether or not their finaldevice meets each specification. Similar to the feasibility testing, the external mentorsmay provide the appropriate medical environment in which to perform the finalbenchmarking.Functional DeliverableAll groups are expected to create a functional deliverable that solves the problem asstated in the problem description by meeting all specifications. Results from thebenchmarking tests are used to assess whether the device passes or fails eachspecification. At the conclusion of the semester
university, and to the nation.Intr oductionCooperative education at the University of Cincinnati is an academic program. It has its owncurriculum and it is faculty driven. The Division of Professional Practice, where the co-oprtqitco"tgukfgu"kp"vjg"Wpkxgtukv{"qh"EkpekppcvkÓu"qticpk|cvkqpcn"uvtwevwtg."ku"cp"cecfgoke"wpkv"reporting directly to the Vice Provost for Academic Planning. This centralized structure ensuresthat the co-op program is administered consistently across participating colleges. There are 38academic programs that participate in co-op. In 2006, 2,916 students participated in cooperativeeducation. The co-op program at the University of Cincinnati is also geographicallycomprehensive. In 2006, those 2,916 students worked at 1,108
integration opportunities; and they contributed significantly to the perennialcomplaint of BME students everywhere: “how is this relevant?” Biomedical Engineeringstudents at our university are quite vocal about their undergraduate education. About 80% ofundergraduates have plans to attend graduate school or medical school. Below is a sampling ofstudent comments from Linear Systems for Biomedical Engineers end of semester evaluations:“[this course] was very tough to comprehend and had little to do with actual BMEapplications.”“Course was very abstract and frustrating; did not seem to fit into biomechanics.”“More examples or a more diverse group of examples would be beneficial. The textbook was notas clear as it could be.”“I still don’t really
average enrolment of 30 students peryear.Medical robotics is a multidisciplinary area building on the established disciplines of robotics,control systems, and medicine. Given the limited scope of an undergraduate course, the diversityof medical robotics applications, and the evolving nature of the field, it was decided toemphasize on common underlying principles of medical robotic systems rather than merelyfocusing on specific applications. This course introduces basic concepts in the design, analysisand real-time control of robotic systems within the context of medical applications. Traditionaltopics in robotics including rigid motions, coordinate systems and transformations, kinematics,and motion planning are covered. Basic principles of
, every student in our Capstone class was assignedhis/her first or second choice of project.Solutions WorkshopsOnce a week the Capstone instructors and teaching assistants (TAs) hold “SolutionsWorkshops”, which are hour-long discussion sessions where four to five Capstone Teams areasked, one at a time, to orally summarize (in the span of approximately ten minutes) the progressthey have made to date on their Capstone projects, any hurdles or problems that have arisen, anyrecent successes that the team has experienced, any resources that are required at that juncture,and work plans for the upcoming weeks. After each team presents this information, the project isopen for discussion by the Capstone students on other teams, the instructors, and the
answer this question, pre-graduation exit interviews and a web-based survey were used toobtain students’ self-reported MCAT scores and the status of their medical school applicationsprocess. The survey netted a 65% response rate. Of those who responded, 54% report that Page 13.1119.5medical school is their top-choice post-graduation plan. However, there is a significant negativecorrelation (by Pearson’s and Kendall’s τb) between this fraction and student rank, meaning thatthe fraction of students specifying Standing (year in program)medical school as their top-choice plan 2nd 3rd
:00PM Lab work and experimentation Page 13.797.5Prevalent experiments run during my lab work period include hydroxyproline andglycosaminoglycan assays, cell culture, histology preparation, Small Angle Light Scattering datacollection and processing, and experimental design and planning. I use Microsoft Excel andMATLAB for data analysis.Student BI think in a given week my time is roughly spent:(50%) Data Analysis: I use DMAS (tracker and reporter) to digitize strain markers almost everyday I work. I also use EXCEL daily. I often use ABAQUS to calculate the strain across theGlenohumeral Capsule. Over the summer I used MATLAB to analyze my
handling, capacity planning, and line balancing, while biomedicalengineering students also designed and performed physiological case-control studies as acomponent of BME 405. Secondly, because the goal of the NISH National Scholar Award is tofoster innovation in the design of assistive technologies to increase the participation ofindividuals with disabilities in the workforce, it was important in the design to incorporate Page 13.806.2features that could maximize the number of workers able to participate in the manufacturingtasks. This requirement led to the introduction of universal design concepts, based on theuniversal design
what needed to be done. If students were creating modules, most faculty mentors hadthem use the Legacy Cycle model, thus incorporating understanding of learning theory into theproject. During the hands-on phase of project development, students’ misconceptions and lack ofunderstanding could be observed and addressed more fully. In many instances, a VaNTHspecialist in learning science was available as a resource for students who needed furtherguidance. In some cases, the specialist acted as a co-mentor for the project, helping to train boththe faculty mentor and the student during the summer. In another type of project, studentsassisted in planning experiments and/or analyzing data related to assessment of student learningin modules that they or
howdifferent ideas are separated. Each section starts with an underlined section heading to let thestudents know that a new section or topic has been started. The notes use consistent spacing inregards to indentations and bullet points, so that it is obvious where idea groupings are located.Although not shown here, key equations or points could be underlined or boxed in a differentcolor to make them stand out from the rest of the board.Of the concepts introduced in this paper, this type of preparation is what we feel has the biggestimpact on developing an engaging, clear and concise lesson. Unfortunately, it is also one of thehardest techniques to integrate into a course that has already been planned. What can be done
stored by any wordprocessor or spreadsheet under any operating system. Powered from the USB port, the BLIPprovides +/ – 5V, eliminating the need for bench-top power supplies, which are particularlyprone to failure in the teaching laboratory.Freed from laboratory equipment, students may complete some assignments in their dorm rooms,in addition to the laboratory. Currently in our fourth year and after use by more than 200students, we can report excellent results, with many students stating satisfaction in constructingand owning their own mini-laboratory. After the current semester (Spring 2008), we plan tomake PittKits and the accompanying on-line resources available to other schools, and we hope toenlist the broader community into its further
integrate written, oral and visualcommunication in existing science and engineering courses. Cain Project instructors assist withcourse planning, communication instruction, instructional materials, and the evaluation ofstudent work.The technical poster assignment was first implemented in 2001. At that time students producedone poster that was graded by the course instructor. In 2002 we began refining the assignmentand required students to submit a draft and a final poster, which were graded by the course Page 13.708.3instructor and the Cain Project instructor. Over the years we observed that many students werenot able to pull out the most