Paper ID #13973Using Project-Based, Experiential, and Service Learning in a Freshman Writ-ing Intensive Seminar for Building Design and Technical Writing Skills (Workin Progress)Dr. Bilal Ghosn, Rice University Dr. Bilal Ghosn is a lecture in the Department of Bioengineering at Rice University. A native of Louisiana, he received his doctoral degree in Biomedical Engineering from the University of Texas at Austin in 2009 with his doctoral research in the areas of drug delivery, biomaterials and diagnostics. He then spent 4 years as a post-doctoral fellow in the department of Bioengineering at the University of Washington where
AC 2012-3144: A MULTIDISCIPLINARY GLOBAL HEALTH COURSEWITH AN INTEGRATED INTERNATIONAL FIELD EXPERIENCEDr. Michael J. Rust, Western New England University Michael J. Rust received his B.S. and Ph.D. degrees in electrical engineering from the University of Cincinnati, Cincinnati, Ohio, in 2003 and 2009, respectively. During his undergraduate training, he worked for Ethicon Endo-Surgery and AtriCure companies, which specialize in the development of novel surgical devices. While completing his doctoral dissertation, Rust served as an NSF GK-12 Graduate Fellow, which allowed him to develop hands-on engineering activities for high school students. In 2009, he joined the faculty of Western New England University as an
challenges that mostengineers encounter in their professional careers.Bibliography[1] K. Topping, “Peer Assessment Between Students in Colleges and Universities,” Review of Educational Research, vol. 68. pp. 249–276, 1998.[2] K. Cho, C. D. Schunn, and R. W. Wilson, “Validity and reliability of scaffolded peer assessment of writing from instructor and student perspectives.,” Journal of Educational Psychology, vol. 98. pp. 891–901, 2006.[3] N. Falchikov, “Peer Feedback Marking: Developing Peer Assessment,” Innovations in Education & Training International, vol. 32. pp. 175–187, 1995.[4] S. Pulford and A. C. Taylor, “Visual Communication Learning through Peer Design Critiques: Engineering Communication Across
environment. It discusses a wide variety ofmedical equipment used in hospitals and clinics. The course objectives are to introduce studentsto the fundamentals of medical equipment technology that enable them to work in the clinicalsettings, technically supporting wide variety of medical devices and to become familiar withtypical types of medical equipmentBET 302 Biomedical Electronics, 4 credit hours:This course introduces the fundamentals of analog electronics with an emphasis on biomedicalapplications. It discusses solid-state devices including diodes, transistors, operational amplifiers,oscillators, and mixers and their use in power supplies, amplifiers and active filters.BET 303 Medical Imaging Systems, 3 credit hours:This course explores the
describedabove. These posters are then printed and supplied for a final competition. The poster serves as avisual aid for a brief presentation given by all group members to judges. Students are givenaccess to guidelines, a template, an outline, and samples as a starting point for creating theirposters. Students are typically judged three times. Judges come primarily from academia,including faculty, graduate students, and undergraduate alumni of the course; students areguaranteed one judge from each category. As seen in Figure 1 below, the environment is similarto a poster session at a technical conference. Figure 1: Microfluidics poster competition
learning situations that are familiar to students as the context for virtual science, engineering and technology investigations. He also pro- posed and implemented the pioneering concept of integrated adjustable virtual laboratories. To facilitate these methodologies for academic education, corporate and military training, his company developed new ground-breaking e-learning solutions, as well as relevant assessment and authoring tools. Dr. Cherner holds an MS in Experimental Physics, and Ph.D. in Physics and Materials Science. He published over 90 papers in national and international journals and made dozens presentations at various national and international conferences and workshops. Dr. Cherner has served as a
, NCAT was chosen (2008) to house the NSF’s Generation 3 - Engineering Research Center (ERC) for Revolutionizing Metallic Biomaterials (RMB). The ERC-RMB conducts transformational biomedical implant technologies for the economic impact and global leadership of the nation through national/international team of collaborators (scientists, clinicians), industries and economic development boards. Dr. Sankar received his Ph.D in Materials engineering from Lehigh University and Masters from McGill-Concordia joint program. Page 24.1382.1 c American Society for Engineering Education
, but can be purchased through specializedwebsites for 3-5 times the cost of the non-adapted toy. To provide access to affordable toys, non-profits such as RePlay For Kids (replayforkids.org; Medina, Ohio), Santa’s Little Hackers(santaslittlehackers.com; Westminster, CO), and East Tennessee Technology Access Center(ettac.org; Knoxville Tennessee) adapt and donate toys to local families and a national networkof lending libraries. A program initiated at the University of Delaware(http://sites.udel.edu/gobabygo/) adapts ride-on cars for children with disabilities and is focusedon the developmental impact of mobility and the technical elements of the modification [13-15].To our knowledge, toy adaptation was first used as an educational and research
and by the end of one semester, undergraduates will write at a level comparable toentry-level graduate students.Background Bioengineering Mechanics I is a junior level course for biomedical engineering majors (BME),and Orthopaedic Biomechanics is a cross-listed course for both senior level mechanicalengineering majors (ME) and graduate students from a variety of backgrounds including BME andME. Both courses take place over a 14-week semester (Fall 2012-2015). In both courses, studentscomplete four lab exercises. Each lab explores concepts in statics, mechanics of materials, andorthopaedic biomechanics. Because the focus in the lab is primarily technical, little formal writinginstruction (i.e., lecture) is presented to the students; instead
Wisconsin-Madison has a longhistory of offering a variety of introductory multi-disciplinary freshman engineering courses.Our most popular course, Intro 160, was a 3 credit course with a hands-on client-based designlab and a seminar style lecture. Recently, our college has decided to end all centrally fundedmulti-disciplinary freshman engineering courses, primarily due to budget cuts, and chargeddepartments with the task of developing and funding their own freshman engineering courses.We developed a new freshman multi-disciplinary hands-on design course to take the place of themost popular freshman engineering course, Intro 160.Approximately half (about 525 engineering freshmen) of our engineering college departments(Biomedical Engineering (35
interrelatedness1-7. More specifically,concept maps enable students to internalize the information they have learned, identify the keyconcepts, and document relationships between these key concepts by drawing physicalconnections between them1, 2, 5. Through concept mapping, the focus of the classroom shifts fromtraditional lecture to an active learning environment2, 7. Concept maps encourage students to beconscious of their learning style2, 7 and to determine which aspects of the material are difficultfor them1-3. Further, concept mapping has shown to be effective in increasing studentengagement and learning in many studies1, 2, 3, 6 as well as lead to more efficient use of classroomtime by more clearly understanding topics students need to be clarified7
Bioengineering Capstone ReportsIn addition to technical skill development, engineering undergraduate curricula must also fosterdevelopment of effective communication skills. The capstone report often plays an instrumentalrole in this development, as it comprises both the final assessment of student communicationperformance and it is the most significant opportunity for active learning of in-disciplinecommunication skills. Peer review has been proposed as an ideal means to provide students withmuch-needed formative feedback.1–3 In addition, peer review has the potential to increase studentinterpersonal communication skills and metacognition, provided that the review activity isstructured to encourage constructive contributions and reflection.In this
semester andlearn professionalism, design and technical skills in the context of their projects.The IRE program is an upper-division program in which the students are graduates of localcommunity colleges where they completed their freshman and sophomore years. They completetheir junior and senior years at IRE. The curriculum consists of 60 credits, including 32technical, 12 design, and 16 professionalism credits. After completing these 60 credits, thestudents graduate with a Bachelor of Science in engineering from Minnesota State University,Mankato. If they complete 12 out of 32 technical credits in a specific engineering discipline (i.e.electrical, mechanical, biomedical, etc.) they earn an emphasis in that discipline.3. Project Approach3.1
small so asto ensure quality supervision received by the students. And the multi-disciplinary group willencourage cross-disciplinary exchange between the students thereby enriching the students’learning experience.Structure of the ProgrammeThe university’s engineering curriculum is divided into 8 semesters (4 years), and the structureof the EIM programme is shown in Fig. 1. While the students are enrolled in the programme,they continue to take the core modules and technical electives in their home departments(bioengineering, mechanical engineering and electrical engineering). The students enter theDCP-EIM programme at semester 3 (year 2) and work on the project for the next 3 years.Through an interview session, the students are selected based
: Develop the design fora self-contained, endoscopic video camera that can be placed into the abdomen or thorax andmaneuvered throughout the body cavity for evaluation of internal organs.II. Supplemental Training CurriculumThe design projects require the students to have and to learn diverse skills for successful projectcompletion. Not necessarily all the students have already learned the necessary technical skillsfrom their academic coursework when working on these projects. Thus a need for a supplementaltraining curriculum was identified by the more experienced students who acted as StudentFacilitators (SFs) to specifically meet the needs of the BME students for their design projects. A similar such, one semester design course
, rebuilding, repair Growing, cell division, regeneration, differentiation, cells dividing, reproduction, Q-2: What do you think is going on in the produce cells, development, protein synthesis, process of human development? List as many mitosis, mutation, maturity, specialization, gene processes as you can. expression, tissue building, decoding genome, homeostasis, metabolism, increase muscle mass Q-3: What are tissue made of
environment most likely very different from home. Theopportunity to travel and experience new cultures is one that should be encouraged andfacilitated within the university.2. MethodsIn order to facilitate foreign study experiences, the first step was to examine theflowcharts for the bioengineering curriculum. Classes were then rearranged in order toallow for one semester in either the sophomore or junior year in which there were nobioengineering (BME-prefixed) courses. Once the flowcharts had been rearranged, anextensive search for international universities that offered these classes was performed.Universities were examined and selected based on the availability of technical classes andwhether or not classes could be taken in English. The majority
Page 13.128.7than rules. Our goal in the REU was to help students become aware of key communicationconcepts that experts have internalized, such as the following: ‚ Technical communication is multifaceted – combining writing, speaking, figures, and numbers. ‚ Technical communication takes place through different “channels” and uses different technologies: face-to-face meetings and teleconferences, slide presentations and reports ‚ Communication is a problem-solving process, and one’s final products are improved by reflection, feedback, revision, and editing ‚ Good engineering communicators: o Have a clear purpose in mind and tailor their communication to their audience o Master a number of
bioengineering laboratory courseAbstractSuccessful engineers are competent in 21st century skills (problem-solving, critical thinking,technology literacy, creativity, independent learning, excellent communication, and collaborationskills), as well as technical and mathematical principles in order to develop societal solutions.Typically, undergraduate engineering programs utilize capstone design projects and problem setsto promote understanding and integration of engineering concepts. However, in cross-disciplinary fields such as bioengineering, knowledge and use of life sciences is as important asapplying engineering principles. Thus, we need to identify ways to introduce more life sciencestrategies into our bioengineering curriculum. One way to
cochlear prosthesis. Sound is collected by a microphone (1) and processed to extract information relevant to speech by the speech processor (2). The information is transmitted via an electrical cable (3). This information is transmitted wirelessly across the skin through a two-way telemetry link (4). The internal receiver (5) uses this information to construct current pulses that are delivered by the electrode array (6) to auditory nerve elements (7) that lead to the perception of sound.For a lab exercise the students are required to write MATLAB code that mimics the operation ofthe signal processor. The architecture of the signal processor is a filter bank that decomposes theinput sound signal into many
technologies. International Journal of Machine Tools and Manufacture, 38(10), 1257-1287. 3. Kruth, J., Leu, M., & Nakagawa, T. (1998). Progress in additive manufacturing and rapid prototyping. CIRP Annals-Manufacturing Technology, 47(2), 525-540. 4. Kothawade, V. E., & Kakade, S. P. (2015). An Overview of Rapid Prototyping Methods. International Journal of Engineering Sciences & Technology, 2(4), 1-4. 5. Petzold, R., Zeilhofer, H., & Kalender, W. (1999). Rapid prototyping technology in medicine—basics and applications. Computerized Medical Imaging and Graphics, 23(5), 277-284. 6. Ashley, S. (1995). Rapid prototyping is coming of age. Mechanical Engineering, 117(7), 62. 7. Bryden, D. (2014). CAD and
the University of California, San Diego in 1984, and a Bachelor of Science. in Computer Science and Engineering from the University of Wisconsin, Milwaukee in 1981. He is a member of the American Society of Engineering Educators (Entrepreneurship Division), the Association for Computing Machinery, and the IEEE Computer Society. Dr. Blessing has served as a consultant to major corporations and is the author of many publications in the areas of algorithms, artificial intelligence, networks and computer systems. Prior to his academic career, has worked for three Fortune 500 companies and has owned and operated two small businesses.Larry Schmedeman, Milwaukee School of Engineering