Society of Engineering Education (ASEE). Page 22.251.1 c American Society for Engineering Education, 2011 Assessment of a Summer Undergraduate Research Program Focused on Biomedical Engineering and DiabetesAbstract Undergraduate research experiences have the potential to influence the careerplans and motivation of young engineers and scientists. However, the impact of theseexperiences on the students may depend on the nature of the interactions with their researchmentors and laboratory staff. From 2006-2010, 10-15 students participated annually in this 10-week NSF
desktop. Students work in the laboratory on weekly homework assignments and “mini-projects”, in which they program microcontrollers and develop biomedical instruments. Thelaboratories on each campus have equivalent hardware setups, as well as videoconferencingequipment so that faculty can help the students remotely. The primary teacher for this class isbased at UNC, and he occasionally travels to NCSU to work with those students directly. Inaddition, a faculty member at NCSU is present for most classes, and he is available to provideassistance to the NCSU students outside of class. In this manner, the NCSU students haveopportunities to get “in-person” help from a faculty member. Feedback on this experience wasmeasured at mid-semester and at the
formal training in writingassessment, while some may even lack confidence in their own writing skills, perhaps becauseEnglish is not their native language [2, 3]. Given that many instructors are committed toincluding writing assignments in laboratory courses, in no small part because they may improveproficiency using the scientific method [4], how to best evaluate writing in laboratory coursesremains an open question.Part of the answer to that question involves the use of rubrics, which are widely used tostandardize grading in large courses. To be sure, rubric-based grading is imperfect: As examples,consider that use of rubrics does not consistently improve students’ grades [5], and thatsubjective interpretation of a rubric can vary widely [6
expensivetesting in central clinical laboratories, and providing more tools for the control of epidemics,especially in the developing world. The recent epidemics of SARS and Ebola, and theworldwide decades-long scourges of HIV, tuberculosis, malaria, hepatitis, and numerous otherviral, bacterial, and parasite infections underscore the need for rapid diagnostics tests, includingmeans to test the safety of water, food, living quarters, and air. In the developing world, POCtests will find wide use in doctors’ and dentists’ offices, hospital bedsides, nursing homes,schools, food processing plants and distribution and retail centers, restaurant kitchens andcafeterias, and at-home patient monitoring for drug therapy. The later applications underscorethe role of
is measured at leastthree times throughout the curriculum using a variety of direct assessment instruments such as inclass exams, laboratory reports, and homework. A summary of the courses in which eachprogram outcome is assessed is given in Table 2. Notice that we only measure outcomes in coreengineering and BME courses that all students will be taking, simplifying the assessmentprocess. Also, there can be a tendency to try to measure every possible outcome that is relevantfor a particular course, but this approach is overly cumbersome5. Meaningful conclusionsregarding student attainment of program outcomes can be drawn with a focused set of measures.To keep the system simple and manageable by our small faculty, we aim to assess (measure
the coordinator of the Cancer Community@Illinois, a group dedicated to advancing cancer-related research and scholar- ship on campus. Research in the Bhargava laboratories focuses on fundamental theory and simulation for vibrational spectroscopic imaging, developing new instrumentation and developing chemical imaging for molecular pathology. Using 3D printing and engineered tumor models, recent research seeks to elucidate hetero-cellular interactions in cancer progression. Rohit’s work has been recognized with several research awards nationally. Among recent honors are the Meggers Award (Society for applied spectroscopy, 2014), Craver Award (Coblentz Society, 2013) and the FACSS Innovation Award (2012). Rohit has
2006-1162: NEW PATHWAYS TO EDUCATE FUTURE TRANSLATIONALRESEARCHERS IN MEDICINEAnn Saterbak, Rice University Ann Saterbak is Director of Laboratory Instruction and Lecturer in the Bioengineering Department at Rice University. She received her B.A. in Chemical Engineering and Biochemistry from Rice University in 1990 and her Ph.D. in Chemical Engineering from the University of Illinois in Urbana-Champaign in 1995. She conducted research and provided technical support within Shell Development Company from 1995 to 1999.Michele Follen, M.D. Anderson Cancer Center Dr. Michele Follen received her B.A. degree from the University of Michigan, Ann Arbor, in 1975, her M.D. degree from the
stopping of breathing during sleep (under Prof. Webster supervi- sion). He is also Teacher Assistant for courses in Medical instrumentation design and Bioinstrumenation Laboratory. His research interests are the design of physiological sensing technologies and the signal processing techniques.Prof. John G. Webster PhD, University of Wisconsin-Madison, Department of Biomedical Engineering John G. Webster received the B.E.E. degree from Cornell University, Ithaca, NY, USA in 1953, and the M.S.E.E. and Ph.D. degrees from the University of Rochester, Rochester, NY, USA in 1965 and 1967, respectively. He is Professor Emeritus of Biomedical Engineering at the University of Wisconsin- Madison, USA. In the field of medical
Paper ID #12365Work in Progress: Providing Diverse Opportunities for Capstone Projects inBiomedical EngineeringDr. Mansoor Nasir, Lawrence Technological University Dr. Mansoor Nasir received his B.Sc. in Electrical Engineering from University of Cincinnati and Ph.D.in Bioengineering from University of California-Berkeley. He worked as a research scientist at US Naval Research Laboratory in Washington DC before joining Biomedical Engineering department at Lawrence Technological University. He has several publications in the areas of microfluidics, chemical and biolog- ical sensors and MEMS technology. He is also passionate
Dr. McCullough was afforded the opportunity to work with Dr. Brian Adams, a well-known hand surgeon. In the summer of 2006, he began a post-doctoral fellowship at Mayo Clinic, working on orthopaedic biomechanics and physiology cellular imaging laboratories. This provided the opportunity to work with outstanding clinical and research mentors like Drs. Kai-Nan An, Kenton Kauf- man, Gary Sieck, Ann Reed, Harold Kitaoka, as well as others. His research at that time focused on non-invasive imaging of muscle tissue as well as cadaveric studies of the foot and ankle. Dr. McCullough is a faculty member of the first bioengineering program independently housed at a Historically Black College or University and is a part of
Paper ID #9184Works in Progress: Development of a need-based BME design course focusedon current NICU challengesMr. Kyle Steven Martin, University of Virginia Kyle Martin is a graduate student at the University of Virginia in Dr. Shayn Peirce-Cottler’s laboratory. Kyle’s research is focused on agent-based modeling of skeletal muscle function and fibrosis. He is equally interested in teaching and has been both a TA and co-teacher, as well as attends workshops and seminars concerning teaching methods and academic jobs.Dr. Pamela Marie Norris, University of Virginia Pamela Norris is the Frederick Tracy Morse Professor of
, Urbana-Champaign Dr. Marcia Pool is a Lecturer in bioengineering at the University of Illinois at Urbana-Champaign. In her career, Marcia has been active in improving undergraduate education through developing problem-based laboratories to enhance experimental design skills; developing a preliminary design course focused on problem identification and market space (based on an industry partner’s protocol); and mentoring and guiding student teams through the senior design capstone course and a translational course following senior design. To promote biomedical/bioengineering, Marcia works with Women in Engineering to offer outreach activities and is engaged at the national level as Executive Director of the biomedical
AC 2007-1855: BIOMEDICAL ENGINEERING PROJECTS: INTEGRATINGOUTREACH INTO ENGINEERING EDUCATIONRebecca Willits, Saint Louis University Rebecca Kuntz Willits is an associate professor of Biomedical Engineering at Saint Louis University and has developed courses in Transport Phenomena, Biotransport, Drug Delivery, Tissue Engineering, and Design of Laboratory Experiments. Page 12.312.1© American Society for Engineering Education, 2007 Biomedical Engineering Projects: Integrating Outreach into Engineering EducationAbstractAs the second course in a two semester sequence in transport
‘integrative laboratory experiences that promote inquiry,relevance, and hands-on experience.’ They suggested that lecture be replaced by more interactivelearning experiences, to increase the ability of students to participate in laboratories, internships,and research opportunities. The same Advisory Committee noted that a high percentage ofundergraduates are not prepared for the workforce due to lack of skills and motivation tocontinue learning8. To overcome this, programs such as the Creative Inquiry program atClemson University have the ability to give students the tools and the freedom to pursuequestions in their area of interest: in this case orthopaedics and biomaterials. This interactivelearning experience is highly valued by students supporting
be taught at any undergraduate school with a rudimentaryelectronics laboratory using commercially available game technology.5 In this project, undergraduate students analyzed the game “The Force TM Trainer” fromStar Wars TM Science which contains a biosensor device for measuring neural activity andfunctions as a basic electroencephalogram (EEG).6 This game was developed by the game Page 23.1376.2company Uncle Milton in conjunction with NeuroSky Inc., which pioneered the low costbiosensor that allows forms of neural activity to be monitored and used for game play andresearch endeavors.7,8 By specifically examining “The Force TM Trainer
performance in a traditional course, the modest level of mastery on the efficiency scale suggests a greater dose of the innovation might be needed to bring performance up to a level that could be regarded as mastery (e.g., 80%). (3) How to optimize the “generate ideas” component of the Legacy Cycle. Linsenmeier et al.11 tested the effects of an HPL-inspired metabolism laboratory over three consecutive years using a randomized experiment (with randomization to conditions within years). The comparative results show that the lab is effective (ESs = 0.57 and 0.30 in Years 1 and 2, respectively) relative to a traditional lab format. Prior to Year 3, they enhanced an aspect of
AC 2008-2265: UNDERGRADUATE RESEARCH CO-OP IN BIOMEDICALENGINEERINGJeffrey Johnson, University of Cincinnati / EngineeringEileen Crisanti, University of CincinnatiJill Collet, University of CincinnatiEdward Grood,Linda Moeller, University of Cincinnati Page 13.1307.1© American Society for Engineering Education, 2008 Under gr aduate Resear ch Co-op in Biomedical Engineer ingAbstr actWe present our model for expanding a mandatory cooperative education program to includeresearch co-op. Yg"nkokv"vjg"fghkpkvkqp"qh"c"Ðtgugctej"eq-qrÑ"vq"cp"gzrgtkgpvkcn"ngctpkpi"opportunity in academic research laboratory. While we recognize that research experiences canoccur in industry, we
Technology had on theparticipants’ career paths. Over the nine years, there have been 131 undergraduate students whoparticipated. Ninety nine (76%) of these students were supported via funding from the NationalScience Foundation Research Experiences for Undergraduates program. The other 32 (24%)were supported through institutional funds. More than half of the students (56.5%) were female,26.7% of the students were from underrepresented groups, and 52.7% students without previousresearch experience. The undergraduate research program understudy is a 10-week engineeringresearch project working in research laboratories at the University or a collaborating MedicalSchool. A tiered mentoring structure was developed within the participating laboratories
/visual aids to encourage children between the ages of seven monthsand three years to perform therapeutic movements of the affected arm. Twomodifications of the proposed device were developed and tested in the laboratory by thetwo groups of students. The first modification was designed to train an infant or toddlerto open his or her fist without the need for casting the unaffected arm. The secondmodification (described in this work) encourages the child to raise the affected arm.Multiple criteria and testing parameters have been created in order to ensure the safety,effectiveness, functionality, and accuracy of the device. Three 11-week terms weredevoted to the research, development, and testing of this device, which required preciseplanning of
. Page 24.956.1 c American Society for Engineering Education, 2014 Open-source software in Biomedical Education: from tracking to modeling movementsProject OverviewA curriculum in biomedical engineering requires a set of laboratory experiences which allowstudents to familiarize with a number of medical equipment and simulation software that arecommonly used in the health care industry. Typically, engineering tools such as force plates,electromyography (EMG), and motion capture systems are used to acquire subjects’ data to beused as input for simulation software, so to characterize human movement performance.Movement analysis is a topic of extreme importance to be presented to the
implemented by our Biomedical Engineering Program. This 1new model consists of a sequence of four courses spanning the junior and senior years. It wasdeveloped to ensure that all students receive repeated exposure to a wide range of skills relevantto the biomedical engineering profession as well as those required for accreditation. The topicscovered include a wide range of ‘soft’ skills,5 such as regulatory issues, environmental impacts,and project management, in addition to laboratory-based ‘hard’ skills, such as rapid prototypingand computer-aided design (CAD). While this sequence does not address the issue of the seniorcapstone being the students’ only exposure to open-ended design, it does provide
the FDA FDA submissions and requirements for approval 2 Medical device classification and testing GMP for medical devices: Quality systems regulations 3 Safety testing: Bench models and in vitro systems Animal models for preclinical studies: Part I 4 Animal models for preclinical studies: Part II Good Laboratory Practices in preclinical studies 5 Case study: Progression through preclinical testing MIDTERM 6 Pilot and pivotal clinical studies Clinical
students are listed below.Full-time students: 28Part-time students: 35Employers of part-time students: Abbott Laboratories Pierce Milwaukee, Inc. GE Healthcare Blood Center of Southeastern Wisconsin Baxter Healthcare Medical College of Wisconsin Camtronics Medical Systems Circon-ACMI Pharmacia Quest Diagnostics. Advocate Health SystemsGraduates of program: 39Graduate employment: Industry: 26 (GE Healthcare, Siemens Medical Solutions, Phillips Medical Systems, Kimberly-Clark
, defibrillators(external and implantable), transmitter systems, Holter Monitors, databases, andfuture directions. Invited speakers typically include a cardiologist and aMedtronic field engineer, tours include a visit to a Human Patient Simulator and aClinical Pharmacology research laboratory, and demonstrations involved use of afree commercial package on biological signals. The course further covers anoverview of the following engineering topics: data capture techniques, sampling,and A/D conversion. The major computational experience for the studentsinvolves basic ekg rhythm analysis using Excel, using data collected from thestudents or (optionally) from an unknown subject. This is followed by a similaranalysis using MATLAB (in parallel with a required
fundamentals of medical imaging equipment and discusses theprinciples of x-ray, computed tomography, ultrasonic, and magnetic resonance imaging systems.As a BET course, the primary focus is on principles of operation, applications, safety, andquality for the imaging equipment.BET 305 Clinical Lab Equipment, 3 credit hoursThis course describes clinical laboratory instrumentation and automation with emphasis on thedemands of clinicians for diagnostic information. Special attention is given to reliability, ease oftraining, and cost effectiveness.The courses MET 421 Senior Project Design I, MET 422 Senior Project Design II, and MET 423Senior Project Design III capture the ET capstone experience through 3 quarters of senior designthat begin in the fall
. Page 15.765.1© American Society for Engineering Education, 2010 Integrating Hands-On Design Experiences into the CurriculumAbstractIn many Biomedical Engineering (BME) programs, design is a key component throughout thecurriculum. This may involve a combination of design problems on paper, a reverse engineeringproject, education in design methods, and hands-on fabrication experiences. In the BMEprogram at the University of North Carolina at Chapel Hill, our goal is to also provide morehands-on design opportunities in the laboratory and machine shop. We accomplished this bycreating new courses for a “design sequence” and by collaborating with an existing, requiredcourse.The design sequence consists of four courses that span the final
inphysiology, cell and molecular biology, and advanced laboratory techniques are moreacademically challenging than introductory biology courses and labs, yet provide similarbackground in basic science and techniques. However, medical schools might counter that theyare not equivalent. For example, two topics that are not taught in our curriculum that areordinarily taught in a standard two-semester biology and lab sequence are phylogeny and thebiology of specific non-mammalian eukaryotic genera. Neither do we teach ecology andevolutionary biology, though these are not universally covered in freshman biology courses.Bacterial and viral biology are covered in our cell and molecular biology course, though inspecific rather than broad terms.We sought to
foundation for successfulcareers in the regenerative medicine industry, as well as other related industries. Our goal is tocapitalize on our three departments’ strengths in medical devices, cell and developmentalbiology, and veterinary medicine to prepare students for the burgeoning field of biologic devicesand products for humans and animals. The program centers on three main components:coursework, a 9-month internship, and a culminating capstone project.The coursework for the program is laboratory-intensive and designed to prepare students fortheir 9-month internship. The core courses are taken by all students enrolled in the program. Thecourse topics were selected to develop the technical skills that are important for regenerativemedicine
(JHU), which integrateshands-on laboratory experience in collaboration with classmates and faculty with theconvenience of online coursework for working professionals. The cornerstone of the program isa summer residency course, Biomedical Engineering Practice and Innovation (“BEPI”).BEPI was designed to build upon foundational coursework by providing experiential learningopportunities in all program focus areas: Imaging, Instrumentation, and Translational TissueEngineering. BEPI combines seven weeks of online coursework with two three-day weekends inresidency at the main campus and hospital in Baltimore, for a total of twelve sessions taught bymultiple engineering and clinical faculty, each experts in their respective fields. Each of thethree
Paper ID #16924Sensing Angular Kinematics by Embedding an Open-source Electronics De-sign Project into a Required Biomechanics CourseDr. Eric G Meyer, Lawrence Technological University Dr. Meyer directs the Experimental Biomechanics Laboratory (EBL) at LTU with the goal of advanc- ing experimental biomechanics understanding. Dr. Meyer teaches Introduction to Biomechanics, Tissue Mechanics, Engineering Applications in Orthopedics, and Foundations of Medical Imaging. He has been an active member of the engineering faculty committee that has redesigned the Foundations of Engi- neering Design Projects course that is required