Paper ID #7510Work in Progress: Collaborative Learning in Medical Electronics Labora-toryMr. Jorge E Bohorquez, University of Miami Dr. Jorge Boh´orquez received his bachelor degrees in Physics and Electrical engineering in 1984 and his Ph.D. degree in Biomedical Engineering in 1991. Currently Dr. Boh´orquez works as an assistant professor of Professional Practice at the Department of Biomedical Engineering of the University of Miami. His research interests are Engineering Education, Neural Engineering, Biosignal Processing and Instrumentation.Dr. Jonathon Anthony Toft-Nielsen
begins to be more relatable for a larger percentage ofstudents experiencing university entrepreneurship curriculum and programming and is morebroadly applicable in engineering education when thinking about levels of failure in a project orproduct development. When speaking about entrepreneurial failure in the university context,however, an even larger body of work speaks about failure without providing a concretedefinition (Korach & Gargach, 2019; Li et al., 2019; Hirschfield, Huang-Saad & Libarkin, 2017;Jamison IV, D, 2017) or implicitly define it as the inability to properly accomplish a given taskon the first try (Davis & Beyette Jr., 2017; Shooter & Orsborn, 2013).Given the large range of contexts and definitions of failure
(Kheir et al., 1996), when the term started to dissipate.Control engineering, once a special discipline, started to become a part of practically anyengineering device or structure. One could find microprocessors anywhere – from acountertop water filter to an unmanned underwater vehicle designed to inspect thepipelines at the sea bottom. At that point industry found itself in a huge demand forengineers with controls background in their backpacks. Academia’s response was theintroduction of the elements of control engineering to the conventional engineering andtechnology programs in Mechanical, Electrical, Industrial, and engineering andengineering technology, its deeper integration in Aerospace engineering and engineeringtechnology, and
-directed final project procedure as well as to enlarge the body of knowledge relevant to theimplementation of valid and reliable alternatives assessments, in the educational system ingeneral and not only for a specific population.References 1. Snowman, J. & Biehler, R.(2006) Psychology Applied to Teaching, USA: Houghton Mifflin Com 2. Department of Education (2001) No Child Left Behind act. Retrieved from http://www.ed.gov/nclb/landing.jhtml January 2010 3. Thornburg, D. (2002). The new basics: Education and the future of work in the telematic age. Alexandria, VA: Association for Supervision & Curriculum Development. 4. Herman, J. L., Aschbacher, P. R., & Winters, L. (1992). A practical guide to
the applications library to ensure consistent training and implementation afterthe completion of the project. This novel and innovative educational delivery model will allowstudents to achieve a high-quality baccalaureate degree in mechanical engineering technology forclose to the cost of a single year at some institutions.BackgroundNumerous collaborations between higher education institutions and industry partners have beencreated in recent years with the purpose of aligning curriculum, and more importantly student-gained competencies, with the actual skills needed by employers (1,2). These models seek toincrease the value of a higher education and minimize the degree of on-site and on-the-jobtraining that must be delivered to a new employee
. Pereira et al. [6] integrated UAVs and photogrammetry into a buildinginformation modeling (BIM) course, part of a construction engineering program, where studentspiloted UAVs and used photos to create three dimensional models of objects located indoors.Autodesk software was used in that project: Recap was used to generate the point cloud that wasthen imported into Revit [6]. Sharma and Hulsey [7] used a UAV for aerial photogrammetry asan exploratory task to investigate its potential in the university setting although it did not appearthat they were integrating UAVs into teaching. Other faculty reported plans to use UAVs formapping in a Construction Surveying course as part of a Civil and Construction EngineeringTechnology program [8]. Opfer and
2022 SDG Project Title SDG Project Title Providing Accessible At-Home HIV Sustainable Water Filtration Systems Diagnostic Paper Tests for Rural Ethiopia Alternative Safe Solutions to Lead Solar Powered Desalination Pipes Sodium-Sulfur Batteries to Enable Miracle on Concrete: Carbon-Capture Sustainable Grid Energy Storage Renewable Photovoltaic Roofing for Porous Concrete as a Solution for Electric Vehicle Implementation Potholes Aluminum Recycling for Lightweight
objectivesby course or by any of the criteria we define. We can sort the database to observe where in theentire curriculum we implement specific course objectives that contribute to any one of theABET criteria. We note that Owen et al also describe a database approach for keeping track ofprogram outcomes.7One of the most important benefits of this task is that we can now clearly see what concepts aretaught in the prerequisites to any particular course, and we can discuss the detailed content of allrequired courses.Maintenance of the database is achieved at the end of each semester when faculty submit a web-based GPA Indicator Report. They can submit changes to their specific course objectives bydownloading a spreadsheet and editing it for the course
such that those natural designs can be used to inspire engineering solutions.The project work period is Fall 2015 to Summer 2019. Design theory, specifically Concept-Knowledge (C-K) Theory is used as the basis for the instructional resources. C-K theory is usedas it is known for integrating multiple domains of information and facilitating innovation throughconnection building. The instructional resources include lectures, in-class activities,assignments, rubrics and templates.The instructional resources have been deployed at two predominately undergraduate institutions(PUIs) in the second-year engineering curriculum. The learning impact of the instructionalresources was evaluated in two ways: (1) a comparative study of the C-K method against
industry drives an increasingly diverse populationin terms of majors, interests, and experiences towards introductory and advanced courses (Foster, et al., 2018;Erdil, et al., 2019). A thoughtfully-designed survey course can balance the needs of various subgroups andrealize the potential to influence students’ attitudes and beliefs, develop career intentions, and teach coreconcepts.A first-year integrated college curriculum has been a common practice across many engineering and sciencedisciplines for years (Cordes, et al., 1997; Bazylak & Wild, 2007). In these approaches for common curriculumdesign, all those first-year students admitted to programs of study in engineering, technology, applied sciencesand other related fields are offered
undergraduate research and the faculty mentor wasresponsible for their daily guidance. Oliveria et al. [9] conducted a cross-sectional survey among1st to 6th years medical students from an established medical school to learn about the levels oftheir engagement at undergraduate research, their challenges and motivation for undergraduateresearch, and how they benefited from undergraduate research. Based on the students’perception, time constraint was the major obstacle for undergraduate research. About 47% of thestudents were involved in undergraduate research, and the percentage of participation in researchincreases from 1st to 6th year. The students who didn’t participate in research favored theinclusion of research in undergraduate curriculum
-disciplinary team project that involves faculty members and students from engineering and non-engineering disciplines. This paper benefits from our experiences with multidisciplinarycollaboration that has helped engineering students build critical thinking, systems approaches,and alternate solution scenarios (Donate et al., 2015, Shankar et al., 2017 a & b). Thesemultidisciplinary teaching alliances have involved professors and students from engineering anddigital arts, and a content field such as urban planning, education, nursing, or business. The endproduct has been smart phone apps. We have published 55 such apps at the open source Githubsite (For museum apps developed by high school students, see MODS15 and MODS16. ForHealth care apps
sequence in curriculum do not suit the needs of all thestudents of different programs and the employers. The present sequence of in-class semesters andmandatory co-op semesters is such that students have solid mechanics competency after the firstco-op experience while machine design course which is last in the sequence is taughtconcurrently with the first part of senior design projects. The present sequence is therefore lessbeneficial to the students in terms of co-op experience and the senior project.This paper presents initiatives taken to address these issues and discusses the details of theproposed scheme. Initially, the issues were identified from all the stakeholders’ inputs. And thenour approach has been evolved with three main components
University Jennifer DeBoer is currently Assistant Professor of Engineering Education at Purdue University. Her research focuses on international education systems, individual and social development, technology use and STEM learning, and educational environments forDr. Stephanie Claussen, San Francisco State University Stephanie Claussen is an Assistant Professor in the School of Engineering at San Francisco State University. She previously spent eight years as a Teaching Professor in the Engineering, Design, and Society Division and the Electrical Engineering Departments at the Colorado School of Mines. She holds a B.S. in electrical engineering from MIT and a M.S. and Ph.D in electrical engineering with a Ph.D. minor in
the skills of design, fabrication, testing and the use of equipment. It must aimto ensure that the producers of technology can be mastered and managed to promote socialand economic well-being” (Item 55, p 69).“An important principle which is enshrined in this report is the idea that the universalcharacter of technology necessarily constitutes a unifying mechanism and levelling forcebetween the social classes within the education system” (Item 55, p 70)Technology is seen tobe something different to science, and a separate programme is required for its development. To this end the French Ministry of Education decided to introduce a curriculum onTechnologie in which the principal teaching method would be the project (Item 54). In orderto
adiagnostic strategy.Engineers and technicians have long used decision-trees or trouble-shooting guides to assist thediagnostic process while identifying problems in technical systems. In our project we havechosen concept mapping developed by Novak. Although often time a complicated andtime-consuming knowledge acquisition process, conceptual mapping is nonetheless a good tool toportray knowledge structure and to diagnose learner’s misconception in learning. It has been usedin the development of agile diagnostic thinking skills of students who have limited contentexpertise 8,9,10,11 . For instance, Lee et al. applied the algorithm of Apriori for Concept Map todevelop an intelligent concept diagnostic system (ICDS) to provide teachers with
curriculum give students valuable and marketable engineering skillsafter only two years in the program. Our students, with some faculty guidance, are running anengineering consulting practice and working on a myriad of interesting and educational projects.Appropriate projects for student consultants are generally of the following types: diagnostic,development, or design. Diagnostic problems address questions such as “What is the oilymaterial that is contaminating this filter?” or “Why is the flooring material in our factoryfailing?” or “Why does our fiberglass preform process produce scrap during the summer monthsbut not during the winter?” Almost any phenomenon that needs an explanation fits thisChemEngine project profile. Development projects
apositive impact on the students’ motivation, engineering identity, and knowledge gain over thelong run and when used across the curriculum. Moreover, IE instructors interested in providingan immersive and integrative learning experience to their students could leverage the VRlearning modules developed for this project.1. IntroductionLike the majority of engineering curricula, the structure of the Industrial Engineering (IE)curriculum consists of a set of courses that are ordered in a sequence such that later courses buildupon the knowledge learned in the earlier courses, with each course usually being taught by adifferent instructor 1. This traditional course-centric curriculum structure has limited ability toestablish the connection between
are then required to take a certain number of these courses, typicallyrepresenting about one third of the degree, spread across a predetermined number of contributingdisciplines or themes. The goal of the general education requirement is to graduate well-roundedstudents and responsible citizens [4]. Although the general education curriculum createsopportunities for students to learn a variety of topics, it does not necessarily integrate disciplinestogether such as engineering and the liberal arts. Thompson et al. [4] found that although 69% ofstudents surveyed could articulate the purpose of general education requirements in creatingwell-rounded global citizens, 71% agreed or strongly agreed with the statement that they wouldprefer to take
challenges of the engineeringprofession. Through equipping the educators with this resource, we aim to reinforce the ethicalfoundation of young engineers, ensuring they are well-prepared to uphold the highest standardsof integrity as they embark on their professional journeys.IntroductionEngineers have a major responsibility for protection of public welfare and the environment dueto the nature of engineering projects and designs being closely related to both (Bielefeldt, 2022).Engineering education has long recognized the importance of integrating ethics instruction intothe curriculum to prepare future engineers for the ethical challenges they may face in theirprofessional careers. For this reason engineering educators have been developing modules
Paper ID #20028REU Site: Solar Energy Research for the Terawatt ChallengeProf. Zachary Holman, Arizona State UniversityDr. Michelle Jordan , Arizona State University Michelle Jordan is as associate professor in the Mary Lou Fulton Teachers College at Arizona State Uni- versity. She also serves as the Education Director for the QESST Engineering Research Center. Michelle’s program of research focuses on social interactions in collaborative learning contexts. She is particularly interested in how students navigate communication challenges as they negotiate complex engineering design projects. Her scholarship is grounded in
: 2019 c American Society for Engineering Education, 2018 Integration of a Highway Fill Embankment Case Study in Engineering Design Courses for Instructional ImprovementABSTRACT:This paper focuses on the application of a case study of fundamentals of geotechnics to ahighway embankment slope failure movement investigation for civil engineering curriculumdevelopment and education. The proposed case study is introduced into the first year elementaryengineering design course. The proposed highway fill embankment slope case study project isplanned to be further introduced for expanded discussions in the later semesters. Early studentexposure of case studies in the curriculum will benefit upper
begun introducing more “design-like” problems intotheir undergraduate analysis courses taught to freshman and sophomore students such as thosedetailed in [7, 18, 23, 31]. One particular example is Miller’s work at the Massachusetts Instituteof Technology [20, 21, 22]. Miller has developed approximately a dozen small, hour-long,hands-on, design-like exercises that aim to give sophomore engineering students a feel for someof the engineering concepts they have learned in theory. While the material tested well indevelopment, actual implementation in MIT analysis courses has been limited. Other approachesto using design early in the curriculum include the Tip-A-Can project described by Freckleton of
examining pros and cons of issues such as the three versus four credit calculussequence, embedded questions, assessment results, and similar topics. Unfortunately, thisliterature does not appear to exist and this will be a focus for additional work. However, severalpapers provide guidance in structuring research questions and research hypotheses related tocontent investigation. These papers may provide a context for future changes,Klingbeil et al.7 studied an alternative curricular approach based on a funded NSF project. Thiscurricular restructuring focused on preparation for topics in the calculus sequence. Toaccomplish this, they proposed a five-credit course to prepare for calculus. Topics in this courseinclude: Algebraic manipulations
as a scaffold, along with following thetenets of gold standard project-based learning (PjBL). Section 6.0 presents outcomes from ourimplementation of the workshop series in Fall 2022 based on survey and focus group data.Finally, section 7.0 summarizes our conclusions and section 8.0 outlines the next steps for ourwork.2.0 Defining co-creationCo-creation in educational settings can take many forms. Its general goal is to improve teachingand learning. This can occur when student voice is incorporated into the design of educationalmaterials [3], when students contribute to curriculum design (e.g. [4]), or when students partnerwith faculty in teaching and research efforts (for examples, see [5]). Co-creation allows forstudents’ growth within
-industry collaborations, some ofwhich are international involving multiple countries. For example, Woolgar examined thepolicies promoting university-industry links in Japan [6]. Xuehong and colleagues reported onan industrial internship program for environmental engineers in Western China [7]. Larsen et al.describe a summer school held at a company in Denmark which brings together undergraduateand masters students from different countries throughout Europe and from different engineeringmajors to work on multidisciplinary projects and develop professional skills [8]. Texas A&MUniversity in the USA has developed international internships to facilitate engineering students’having experiences outside the USA [9]. In Australia, the Royal Melbourne
engineering disciplines [1-6]. Therefore, it’s of great interest foruniversities to determine how to best help students understand engineering disciplines andcareers, but this is completed in many different ways. Schools may include instruction on theengineering design process, engineering projects, computer programming, major discernment,and many other topics [7]. This paper will explore how the University of Notre Dame haschanged the first-year curriculum to allow students to customize their first-year experience andhow those choices play a role in retention and certainty through the first-year.This study was completed at the University of Notre Dame, a medium sized, private,Midwestern, residential university and compares students enrolled in first
. (2006, June). How do students in a project- based first-year engineering curriculum perform in a sophomore engineering mechanics course? Paper presented at the 2006 ASEE Annual Conference & Exposition. Retrieved from http://soa.asee.org/paper/conference/paper-view.cfm?id=1319.Güzeliş, C. (2006). An experience on problem-based learning in an engineering faculty. Turkish Journal of Electrical Engineering, 14(1), 67-76.Hake, R. R. (1998). Interactive-engagement versus traditional methods: a six-thousand-student survey of mechanics Page 25.1272.17[Insert Running title of <72 characters
collaborationcentered extra-curricular resources can improve the project experience for first-year engineeringstudents.Background and Motivation First-year engineering education and its impact on student retention, culture, andexperience is an important topic to current educators trying to improve university levelengineering education. Persistence in an engineering program is directly related to the first-yearexperience [1]. The first-year curriculum and surrounding environment are essential componentsto providing students with points of both learning and discovery that will ultimately impact theirdecision to stay within their chosen path [1]. Although the engineering path may not be the bestpath for every student, there is a serious concern over
-Leader for the USDA-AFRI project CenUSA Sustainable Production and Distribution of Biofuels for the Central USA. He is a licensed Professional Engineer who earned his BS in Electrical Engineering from the Rochester Institute of Technology and his PhD in Agricultural and Biological Engineering from Cornell University. Prior to coming to Iowa State in 2006, he was a faculty member at the University of Tennessee for over twelve years. Raman enjoys teaching and has taught courses including freshmen engineering (mechanics and computer programming – to classes ranging in size from 20 to 500+), sophomore and junior level courses on mass and energy balance applications to biological systems engineering, numerical methods