. Reckinger “An Interactive Programming Course Model for MechanicalEngineering Students”, ASEE Conference, Indianapolis, IN, June 2014.4. S.M. Reckinger and B.E. Hughes “Assessment design in a MATLAB programming course formechanical engineering students” International Journal of Mechanical Engineering Education, Vol. 46,Issue 4, pp. 362–374, 2018.5. Free Pascal, opensource Pascal compiler www.freepascal.org/6. MeKin2D Subroutines for planar mechanism simulation https://sourceforge.net/projects/mekin2d/7. P.A. Simionescu “MeKin2D: Suite for Planar Mechanism Kinematics” ASME IDETC/CIEConference, Charlotte, NC, Aug. 2016, p. 108. P.A. Simionescu and E. Constans “A comprehensive punch-press project for an undergraduate courseon mechanical systems design
, devoting several courses to several of the individual topics.2 Multi-Disciplinary ContextOur multi-disciplinary engineering program at ASU is built around core values of engaged learning,agility and a focus on the individual. The main spine of the program is eight semesters of projectwork conducted inside an engineering studio. The freshman and sophomore years of the programare multi-disciplinary, with all students sharing a common set of projects and courses. At the upperdivision, a student will individually select two focus areas: a primary engineering emphasis area Page 13.366.2and a secondary emphasis area, which may or may not be in
-being of poor and marginalized communities aroundthe world. Several other colleges and universities, including Dartmouth [3] and OhioState [4], also have Humanitarian Engineering programs. Stanford University [5]introduces a student-led course in learning sustainable design through service. Thisprogram’s goals are to (a) develop students’ iterative design skills, project managementand partnership-building abilities, sustainability awareness, cultural sensitivity, empathy,and desire to use technical skills to promote peace and human development, (b) helpdeveloping communities ensure individuals’ human rights via sustainable, culturallyappropriate, technology-based solutions, and (c) increase Stanford University’sstewardship of global
insight into both their creative writing processes as well as their computerprogramming writing processes. Throughout the semester, students are challenged to understand,think critically to solve writing and computing problems, analyze narrative structure, compareand contrast stories, and apply various narrative structures to their project. Students workcollaboratively on this group project to create a video game prototype and an accompanyinggame design document. The game design document describes the project and discusses elementsof analysis and design. Moreover, students prepare and revise an annotated bibliography tofacilitate their ability to make connections across academic disciplines. This strategy requiresstudents to write one paragraph
a Consulting Professional Engineer in Delaware.Robert O'Neill, Roger Williams University ROBERT JAMES O'NEILL has been hired by FGCU as Professor and Program Director for Civil Engineering (starting his contract in August 2006). He is currently a Professor of Engineering at Roger Williams University. He received his Ph.D. in Structural Engineering from Kansas State University in 1993, M.S. degrees in Structural and Geotechnical Engineering from Stanford Unversity in 1984, and a Bachelor of Science from the United States Military Academy at West Point in 1975. Dr. O'Neill has been active as a Senior Mentor and instructor in Project ExCEEd for the American Society for Civil Engineering
Paper ID #12684General Engineering Plus: Creating Community in a Flexible yet TechnicalEngineering DegreeDr. Malinda S. Zarske, University of Colorado, Boulder Malinda Zarske is the Engineering Master Teacher for the General Engineering Plus program at the Uni- versity of Colorado Boulder. A former high school and middle school science and math teacher, she has advanced degrees in teaching secondary science from the Johns Hopkins University and in civil engi- neering from CU-Boulder. Dr. Zarske teaches engineering design in First-Year Engineering Projects and Engineering Projects for the Community, a sophomore-level course
CoursesAn important component of the PS course, whether part of a LC or not, is a group project inwhich students create a story that they later implement as a video game prototype using Alice,developing their computer programming concepts and skills along the way. We believe that oneof the reasons why students perform better in sections of the PS course linked to a LC is becausethe narrative skills learned in the EG1 course allows them to create more engaging stories whichthey then implement as a computer program using Alice. Students taking a PS course not linkedto a LC may not be taking EG1 in the same semester, they may have forgotten about thenarrative and writing skills learned in EG1, or the EG1 instructor teaching the course may notemphasize
-disciplinary skills are the skills that studentsare expected to develop through their coursework in multiple engineering disciplines or in non-engineering coursework. Example survey questions are shown in Table 5.Table 5. Sample self-efficacy survey questionsSubtheme Sample questionDisciplinary Recognize underlying technical principles inengineering a complex problem.Cross- Carefully balance technical, economic, anddisciplinary cultural factors in making project choices.In order to permit comparison of undergraduate and alumni responses with other engineeringrespondents from other institutional surveys, two separate survey scales were used for theundergraduate and alumni survey questions on self efficacy. Undergraduate
because it teaches you to obtainknowledge on your own and gives you a better understanding of the world that you live in. It also teaches you tothink critically and evaluate the information that you are receiving very quicklyI felt that I could show my creativity and what my mind can do which in college I do not believe there is enoughfreedom to express oneself in the classroom.TeamworkIt also displayed not just out thermodynamics abilities, but our skills to be leaders and work in a team, which areessential to be a great engineer. I think out project came out very well and I’m proud of how much we accomplishedand learned in just 3 hoursAlso, the group setting allows for a variety of ideas and backgrounds to come together in a unique way. The
Paper ID #31562Fostering Reflective Habits and Skills in Graduate Engineering Educationvia the Arts and HumanitiesDr. Ryan C. Campbell, Texas Tech University Having completed his Ph.D. through the University of Washington’s interdisciplinary Individual Ph.D. Program (see bit.ly/uwiphd), Ryan is now a Postdoctoral Research Associate at Texas Tech University. He currently facilitates an interdisciplinary project entitled ”Developing Reflective Engineers through Artful Methods.” His scholarly interests include both teaching and research in engineering education, arts & humanities in engineering, interdisciplinary
in appreciation of course relevance of both theengineering course and composition course. This project is significant as the results from thisstudy will be used to better design and link interdisciplinary curriculum and leverage topics inand between all cohorted classes.IntroductionThe importance of writing and communication skills to the academic and professional pursuits offuture engineers is well established. ABET lists an “ability to communicate with a range ofaudiences” as a student outcome for the accreditation of undergraduate engineering programs[1].Writing specialists have long sought to identify and develop “reliable ways” of helping studentsprepare for the writing situations they will likely encounter as engineers [2, p. 318]. Yet
Lafayette College, her MSLS from Catholic University of America, a M.Eng. in Industrial Engineering from Rensselaer Polytechnic Institute, and is currently working on her PhD in Engineering Education at Purdue.Ms. Iryna Ashby, Purdue University, West Lafayette Iryna Ashby is a Ph.D student in the Learning Design and Technology Program at Purdue University with the research interests focused on program evaluation and self-regulated learning. She is also part of the program evaluation team for the Transdisciplinary Studies in Technology at Purdue Polytechnic aimed to redesign undergraduate student experiences through offering a combination of deep liberal arts experiences with student-driven, hands-on project-based
NanomaterialsWe have recently developed a one-credit course designed for first-year students considering thenew major in Microsystems and Nanomaterials Engineering. It is based on a successful“Engineering Projects” course offered through our General Engineering department, which hassubsequently been made into a popular summer program for prospective students. The goal ofthis new course, which meets two laboratory hours per week, is to expose students to several ofthe important ideas and concepts in microsystems and nanotechnology, and to give them hands-on projects that will help them learn these multidisciplinary ideas. Further, the “ulterior motive”of this course is to inspire students to stay in engineering, and to give them a flavor of
students for a wide range of careers in professional fields thatcombine skills and interests in engineering, the arts, technology, and culture. As part of a quartersystem, the LAES program requires 52 quarter units (hereafter referred to as simply “units”) ofgeneral education, 40 units of Science and Mathematics, 34 units of Engineering, 24 units ofLiberal Arts, and 8 units of study abroad coursework. LAES students also take 16 units ofservice-based learning combined with their senior project work. Our graduates have successfulcareers as game designers, media developers, sound engineers, and technical writers, to namejust a few. For more information on advising and Engineering/Liberal Arts course selection,please refer to the following web page
communicate in both directions, providing the institute with information from their home departments about potential problems, as well assisting the institute in seeking solutions to problems that can work for all parties. It's important that the representatives are self-chosen and thus motivated to put in the time and effort needed to launch such a project. The current leadership team (which corresponds to the coauthors of this paper) came together based on a shared commitment to power and energy education, and began working together as participants on the grant proposal. A challenge for the future will be to determine how to maintain an effective core leadership team, as additional faculty outside the initial team become interested
7:00 – 8:15 am Multidisciplinary Design Constituents 2271 8:30 – 10:15 am Multidisciplinary Capstone Design Projects (co- sponsor: Design in Engineering Education Div.) 2471 12:30 – 2:00 pm Experiential and Service Learning 2561 2:15 – 4:00 pm Learning to Communicate with Engineers and Non- Engineers (co-sponsor: Liberal Education Div.) 2571 2:15 – 4:00 pm Multidisciplinary Curriculum Innovation 2671 4:30 – 6:00 pm Multidisciplinary Engineering Division Meeting Wednesday, June 25 3171 7:00 – 8:15 am
actively involved in the entrepreneurial process of establishing new companies. Since arriving at Charlotte I co-founded and I am the Chairman of the Board for PiES, Project for innovation, Energy and Sustainability, a non-profit green business incubator that incubated seven companies. I am a Fellow of Institute of Electrical and Electronic Engineering (IEEE), Institute of Physics (FInstP), and the International Society for Optical Engineering (SPIE). Page 24.1142.1 c American Society for Engineering Education, 2014 2014 ASEE Annual Conference
13.546.5References1. Bonnette, Roy. (2006). Out of the Classroom and into the Community: Service Learning Reinforces Classroom Instruction. The Technology Teacher, 65(5), 6-11.2. Bradford, M. (2005). Motivating Students Through Project-Based Service Learning. T H E Journal, 32(6), 29-30.3. Campus Compact (2001). Assessing service learning and civic engagement. Providence, RI: Brown University.4. Eyler, J., & Giles, D. (1999). Where’s the Learning in Service Learning? San Francisco: Jossey- Bass Publishing Company.5. Goetsch, D. L. (1992). Industrial Supervision: In the age of High Technology. New York: Macmillan Publishing Company.6. Kurt, M. (2001). Technology Education
raising calls for more interdisciplinary learning andcollaboration.In the most recent MIT report, The Global State of the Art in Engineering Education, RuthGraham highlighted a “focus on rigor in the engineering fundamentals” but also “user-centereddesign, technology-driven entrepreneurship, [and] active project-based learning” [3]. A keychallenge that constrains engineering schools is their “siloed monodisciplinary structure… andfaculty appointment and promotion systems that are not perceived as rewarding teachingachievement” [3]. In the MIT report, Graham anticipates a shift “towards socially-relevant andoutward-facing engineering curricula” in which “curricula emphasize student choice,multidisciplinary learning, and societal impact” through
concepts related tothermo-fluids and heat transfer areas.Course Development and ImprovementThermodynamics and Heat Transfer Laboratory is a three hour-credit junior to seniorundergraduate core curriculum course designed for all Engineering Technology (ET) students. Page 25.843.3Our ET program majors range from mechanical engineering technology, electrical engineeringtechnology, industrial engineering technology and biomedical engineering technology. Also, thiscourse is one of the main precursors of the capstone Senior Design course. The Senior Designencompasses a student-led team project that has as a main outcome demonstrating a workingprototype
reinvigorate the country’s university system. Part of that effort has been theestablishment of the National Military Academy of Afghanistan (NMAA); a four-year, bachelor degreegranting institution modeled after the military academies of the United States. Two of the primarydegrees offered by NMAA are in Civil and General Engineering. In the summer of 2009, facultymembers from the United States Military Academy (USMA) traveled to NMAA to serve as mentors for thebudding Academy.This same principle applies beyond Afghanistan. There is a continuing need for engineering expertiseand education in Nicaragua, India and elsewhere. Engineering faculty and students today can expect towork on projects far beyond the borders of their home countries, in settings
projects are central to our teaching pedagogy. In moving to ERT, we had manyquestions centering on retaining our pedagogy in a completely online environment. Thisdilemma required us to become collaborative learners ourselves, demonstrating anentrepreneurial mindset [2]. Specifically, we took risks to explore ways to create an onlinestructure to enable students to reach course learning objectives. Within our own discoveryprocess, we developed stronger collegial relationships and applied our learning not just to theclassroom, but to our service and scholarship work. Moving online in ERT changed the way welived out our culture and provided new collaboration tools that benefited all aspects of our workas faculty. These benefits can extend beyond the
[6]. In order for future engineers to produce efficientfunctional texts, they must acquire specific features of academic training in their undergraduateeducation that mirrors the demands of professional engineering career paths [7]. Research alsoproposes that students are lacking in projects that enhance their communication and teamworkskills [8]. This highlights the importance of the role of engineering educators as they are requiredto make careful selections of teaching material that both develops the student’s general writingskills and provides students with relevant practical experience in project-based learning andopportunities to work and write together as a team.The Technical Writing and Experimental Design course at the University of
, Texas A&M University. Dr. Tsvetkov’s research program is focused on novel energy systems meeting global growing needs in sustainable resources. The project portfolio includes direct energy conversion, waste minimization efforts, novel reactor designs, instrumentation efforts, and data science and engineering for a broad range of applications targeting optimized designs and performance. He published over 300 papers in peer journals, conference proceedings and reports as well as served as an editor and major contributor for 14 books on energy, environment and nuclear energy.Dr. Yuguo Tao, Georgia Institute of Technology Yuguo Tao received B.S. and M.S. from Tianjin University in China, and PhD from University of
should study SPC, gives a brief tutorial onSPC, and provides some simple exercises for students that would be appropriate forlaboratory or homework use.Intr oductionProcess control is inherently multidisciplinary. It is used in a wide variety of industries,including automotive and consumer products manufacturing, aerospace, semiconductordevice manufacturing, bulk chemical manufacturing, and refining. Industrially, a processcontrol project draws on economics and software engineering in addition to the variousengineering disciplines that may be involved. Generally, industrial controls projects(large or small) require multidisciplinary teams to be successful. Control engineers comefrom a variety of fields including mechanical, aerospace, electrical
Internet of Things, it is vital, with respect to U.S. manufacturing, that we produce graduateswell prepared to fill the professional manufacturing jobs of the future.The multidisciplinary nature of the degree program is highlighted in the paper, as are the program’s corecompetencies and skill set development emphases. In addition, the various industry partnershipsformed to-date under the AMSI umbrella, with a view to supporting the degree program in a sustainablefashion, are highlighted.1. Introduction.As has been noted by various industry analysts, including Deloitte and the Manufacturing Institute [1],more than 2 million manufacturing jobs are projected to go unfilled in the U.S. over the next decade.Only around 40% of a projected 3.5 million
Columbia University Medical Center, working on research and implementation projects as a senior Information and Communication Technologies lead in various U.S. CDC-funded multi-year re- search grants in public health informatics. His current research grants study mobile data collection in cloud-based health informatics infrastructures. c American Society for Engineering Education, 2016 Toward Engineering-Oriented Health Informatics EducationAbstractThe need for informatics-trained professionals in health organizations has been ever-increasing.In addition, there is also a significant need to orchestrate data collection through informaticsinfrastructure, manage computing resources, store data, and
experimenting with the curriculum to reduce the number of engineering credit hours,introduce of a project-based design spine, and the creation of a variety of structured curricularpathways aligned to the interests of our students. As more engineering programs diverge fromthe dominant pattern we can begin to empirically examine the impact of our program designchoices and, in time, both close the leaky pipeline of women pursuing engineering degrees aswell as increase the migration into the degree.References[1] L. B. Cavagnaro and H. Fasihuddin, “A Moonshot Approach to Change in Higher Education: Creativity, Innovation, and the Redesign of Academia,” Lib. Educ., vol. 102, no. 2, 2016.[2] M. W. Ohland, S. D. Sheppard, G. Lichtenstein, O. Eris, D
of visuallearners, teaching methods should include frequent use of visual and tactile aids. In the literature of visual and tactile aids for teaching and learning, there are numerousstudies providing supporting evidence that such aids enhance students’ learning outcomes aswell as possible rationales, for example, aids reduce the burden placed on short term memoryfor engineering problem solving. Abstract concepts without direct physical representations can be found in manyengineering knowledge domains such as industrial engineering, systems engineering, andengineering management. Domain topics having abstract concepts include supply chains,enterprise computing, and complex engineering projects. Teaching and learning suchconcepts is
his/her graduate research project, each student willstudy, design, or create experiences for people with disabilities that will empower them toovercome existing obstacles or barriers in their lives and learning. The findings are expected tobroadly impact learning among students.Overall Program StructureLWD was initially created as a concentration among four of WSU’s existing Ph.D. programs:BioMedical Sciences (BMS), Engineering (Eng), Computer Science and Engineering (CSE), andHuman Factors and Industrial/Organizational Psychology (HF/IO). While these programs reflectdifferent methodological and theoretical traditions, there are many potential points ofoverlapping interest and intersection that favor an interdisciplinary approach. For example