that participantsmight take to grapple with a new concept or phenomenon [1]. To understand if the participants had gained any HCA, participants were asked to defineHC. Based on these answers, some identified HC as the actions of individual actors (active) or asa byproduct of schooling institutions (passive). As for the deeper understanding of theparticipants’ emotional states surrounding HC, they were asked: Can you think about an exampleof hidden curriculum you experienced in engineering? Briefly explain the situation and theemotions you had in that situation.Data Collection and Analysis The authors previously produced two manuscripts from this larger dataset that hasinformed this study. In one study, they coded the n984
waysthroughout the curriculum, from simple tasks such as plotting functions, to sophisticated taskssuch as simulating the dynamics of a complex system. We are also connecting the theory ofidealized physical systems with real systems through the combination of computer simulationsand validation experiments. Through continued exposure, we anticipate that our students willembrace computation as a useful tool in their arsenal. This paper describes our project, whichinvolves five physics faculty and an advisor from the School of Engineering who has expertise ineducation.IntroductionMost physics research these days involves the use of computers for data collection and analysis,simulations, symbolic manipulation, and numerical analysis. As the American
School graduation numbers butother factors are also contributing. This decrease in enrollment potential increases the interest inunderstanding how programs might improve in terms of recruitment, satisfaction during theprogram and employment opportunities.In this paper, the data presented attempts to gain an initial understanding of the role of threeengineering program distinctives, or pillars, from Westmont’s new engineering program as theyrelate to recruiting, satisfaction during the program and employment opportunities. This data canbe helpful to other programs as they work toward improvement.General University and Curriculum InfoWestmont is a small Christian liberal arts college in Santa Barbara, CA. The college began anengineering program in
systems, and considering abroad range of implications when synthesizing a newdesign. This requires the students to learn to link conceptsfrom across the breadth of the curriculum. While the newcourses assimilated concepts found in the old courses asbuilding blocks, new material was added to emphasize linksbetween these existing concepts; we seek to mask the Figure 2 Curriculum Organizationboundaries of the subject areas intentionally. We are alsoproposing a new approach to concept inventory testing to assess the efficacy of conceptconnectivity.Concept inventory testing backgroundConcept inventory testing is a well-known technique for assessing student understanding of asubject area. Typically these tests seek to assess comprehension
universities that offer major or minor inRobotics Engineering across the globe. We have mainly reviewed the degree/major/minorrequirements as well as the curriculum Themes i.e. Core Areas and Courses. Our study confirmedthat the absence of a programming course in the first year was a significant gap in our curriculum.Implementation and OutcomesSeveral options were proposed, including having our students take an introductory programmingcourse from the CS department such as Introduction to Programming (CS 1004) into the RBEcurriculum, working with CS department to have their course (RBE 1004) tailored toward ourgoals for RBE students, creating a new RBE-specific programming course, and finally breakingone of our RBE introductory course namely
learningexperience in Computer Architecture and Engineering education, specifically in the areas ofsingle cycle and pipelined datapath design. The approach improves student performance,enhancing learning outcomes in Computer Architecture and Engineering curriculum.1 IntroductionIn engineering education, there is a significant thrust towards crafting students into capableprofessionals. Pursuing this goal has involved delving into and embracing various pedagogicalapproaches, including differentiated learning [1–6], project-based [7–10], inquiry-based[11–14, 24], and collaborative [15–19]. Each approach imparts a distinctive flavor to theeducational experience, thereby enriching the academic journey for those studyingengineering.Differentiated Learning
and assessing human movement in patients undergoing rehabilitation.Dr. Momodou Jain Page 25.421.1 c American Society for Engineering Education, 2012 Developing an Engineering Curriculum at a Developing University in a Developing CountryOverviewThrough use of an in-progress case study model, this paper sets out to demonstrate the possibilityand advantages of home-grown grassroots development of an engineering program in a smalldeveloping country. The model of this case study presents an alternative approach to a resourceintensive top down construction of an engineering program
that the former includes professionalskills and competencies such as industrial engineering and management, communicationskills, ethics etc, whilst the latter focuses on preparing students for a future academic career.Serving all needsAfter five years of studies, a student following the system(s) described above could be entitledto three degrees. These degrees have slightly different learning goals. In order to award allthree degrees, the university needs to assess and assure that the learning goals are achieved.How can this be monitored, and is it even possible? Some previous publications [3, 4] suggestthat it is possible but requires a lot of effort in adapting program goals to course goals andensuring a high standard in the curriculum
Paper ID #32579Fostering Entrepreneurial Mindset in an Engineering Statistics CourseDr. Nadiye O. Erdil, University of New Haven Nadiye O. Erdil, an associate professor of industrial and systems engineering and engineering and oper- ations management at the University of New Haven. She has many years of experience in higher educa- tion and has held several academic positions including administrative appointments. She has experience in teaching at the undergraduate and the graduate level. In addition to her academic work, Dr. Erdil worked as an engineer in sheet metal manufacturing and pipe fabrication industry for several
systematic approaches in the analysis,design and continuous improvement of healthcare services and systems.Need for Healthcare Systems EngineeringWith rapid technological advances and changes paralleling what occurred during the past twodecades in the industrial sectors, the healthcare sector appears to be in the midst of a new“industrial revolution.” There is an urgent need to apply the principles of engineering, science,management, and technology to healthcare improvement. It is now widely accepted that asystems engineering approach should be adopted as an important basis for the future efforts toapproach the tremendous challenges and opportunities in patient safety, service quality, andhealthcare costs containment, and hence there is a need for
Session 3430 Recommending and Implementing a General Model for Technical Communication (TC) Instruction in an Engineering Curriculum Pneena Sageev, Carol Romanowski, Kathy Bernard University at Buffalo, State University of New York, Buffalo, New YorkAbstractIn response to pressing industry demands, revolutionary new ABET* requirements,recommendations from professional engineering organizations, and suggestions from recentengineering graduates, we identify a general model for technical communication (TC) instruction.When flexibly implemented in an atmosphere of collaboration among engineering professors
. ©American Society for Engineering Education, 2024Work in Progress: Mechanical Engineering Curriculum Renewal Process at Ohio State UniversityAbstractIn late 2019, the faculty of the Department of Mechanical and Aerospace Engineering at OhioState University began a long-range initiative to redesign the undergraduate mechanicalengineering curriculum. The aim was to develop a new set of goals for the program independentfrom the current curriculum, with a focus on meeting the needs and challenges of modernstudents as they enter a constantly changing professional environment.While updating and renewing a mechanical engineering curriculum is not a novel concept,performing a complete redesign of the curriculum is a major undertaking
designing and testingthem separately before putting them together. Improving student competence in this area will beincorporated at the next offering of this course. Based on student feedback, their experience inthis design oriented and project based instrumentation course has been very rewarding andchallenging.Bibliography1. J. D. Lang et al., “Industry expectations of new engineers: A survey to assist curriculum designers,” Journal of Engineering Education, pp. 43-51, Jan 1999.2. B. Dutch et al., “The power of problem-based learning: A practical how-to for teaching undergraduate courses in any discipline,” Stylus Publishing, 2001.3. J. T. Lugowski and S. E. Widmer, “Problem based learning of data acquisition and computer-based control
JonathanM. Tisch College of Civic Life (Tisch College), the School of Engineering (SOE), and the Centerfor Engineering Education and Outreach (CEEO) to implement engineering faculty training andsupports to assist instructors with infusing civic education into several foundational courses. Theintervention aimed to provide faculty members with the tools to implement civic engagementinto existing curriculum for a collection of first year intro to engineering courses, and to supportfaculty to think broadly about the role civic engagement already plays in the courses they areteaching. This paper (1) details the faculty professional development and supports providedbefore and during the semester as professors implemented new civic engagement
troubleshooting,and had many opportunities to encounter open-ended problems that required a creativesolution. While these skills do not always come easily, in the authors’ experiences,students, when motivated, rise to the occasion. As the instructor, the sequence providedcountless teachable moments that would not have developed in a traditional course.ReferencesRicherson SJ and Cavanagh DP “Vertical Laboratories: Within Biomedical EngineeringCourses and Across the Curriculum”, Proceedings of ASEE 2005.Cavanagh DP and Richerson SJ, “An Integrated Lecture-Lab Approach for anIntroduction to Biomedical Engineering Course”. BMES 2004.Tranquillo, J, “Qualitative, Quantitative, Open-ended Design: A Progression inLaboratory/Lecture Learning”. Proceedings of ASEE
engineers and other STEM professionals.However, despite the increasing need, there has been declining interest in pursuingSTEM-related careers [1]. Given the rapid growth of available engineering jobs and the shortageof talent or motivation to fill these roles [2], it is imperative to develop new approaches forincreasing the interest of a broader range of students to fill these roles.One way to enhance participation in engineering is to expand the participation of historicallyunderrepresented populations (e.g., women, Black, Latinx, and Indigenous groups). Anothergroup that is often neglected is rural students. Although over six million students are enrolled inschools serving rural communities, these students are a relatively unexplored group in
how Baylor University'sengineering programs function within a liberal arts environment21. Baylor’s curriculumrepresents a more restrictive approach to the humanities and social science component than most.The curriculum specifies two courses in great texts (ancient world, and medieval andRenaissance), two religion courses, an ethics course, intermediate foreign language, aneconomics course, and either a political science (constitutional government) or English literaturecourse for a total of twenty-four semester hours. A student's elective choices are restricted to theselection of a foreign language and one of four possible ethics selections from business, medical,Christian, or engineering ethics. Missing from this list are courses in
approach:The new curriculum may be designed integrating more sustainable-green perspectives,cultivating sensitivity to sustainability issues in students in all engineering disciplines. Suchcurricula include government-industry collaborations and assessment activities in greenengineering. Curricula must include courses that promote and teach GREEN design principlesand environmental awareness, ecological literacy, environmental economics and sustainableethics. Ideally, organization would establish accountability and methods of programmaticevaluation of the curricula to determine if indeed the objectives of sustainability had beenmastered by students.Implementing Interdisciplinary Approach in Sustainable Construction in ConstructionEngineering Technology
way?4) What new awareness do you have about engineering?5) What new awareness do you have about how engineers use math?6) What new awareness do you have about how engineers use science?7) What new awareness do you have about engineering careers?8) Now that you have completed the E2 curriculum in your classroom, will you use it again with future classes? (Yes, Maybe, No) Why or Why not?
year, whichincludes a group project, and a substantial, individual software project in the third year, theComputer Science curriculum at our university fully covers the area of SE as suggested byCS2013.3 A learning approach to Software EngineeringFor effective learning of software engineering, we suggest a learning approach that • appeals to the plug-and-play mindset of a student generation who loves to play with gadgets of all kinds, • illustrates (selected) concepts of the discipline with hands-on experience, and • is relevant to industry.This eases teaching on the conceptual level, as – thanks to the above listed points – studentsengage with the course and buy-in into the concepts presented. Further
. A Multidisciplinary Capstone Teaching Model - An Integrated, Multilevel, Intradisciplinary Engineering Design Approach. in in Proceedings of the 27th Annual Frontiers in Education Conference. 1997. Pittsburgh, PA: IEEE.6. Al-Masoud, N. Integrating MATLAB Graphical User Interface in Statics Course. in 2006 ASEE Conference and Exposition. 2006. Chicago, IL: American Society for Engineering Education.7. Harper, B.D., Solving Statics Problems in MATLAB. 2002, New York: John Wiley & Sons, Inc.8. Kraige, L.G. and J.L. Meriam, Engineering Mechanics: Statics. 5 ed. 2002, New York: John Wiley & Sons, Inc.9. Riley, W.F. and L.D. Sturges, Engineering Mechanics: Statics. 2 ed. 1996, New York: John Wiley & Sons
ETD 545 Industry Informed Curriculum Development in Engineering Technology: Solar PV Planning and Installation Mohsen Azizi New Jersey Institute of TechnologyIntroductionThe power generation industry has been gradually switching from traditional fossil generators torenewable energy systems (RESs), which are more efficient and environmentally friendly, in thepast two decades. This trend has given rise to the job market demand for a new generation ofengineers and technicians from science, technology, engineering, and mathematics (STEM)fields, who are
Co- Executive Director of the Baker Institute. Spring 2015 Mid-Atlantic ASEE Conference, April 10-11, 2015 Villanova UniversityThis new graduate offering with a focus on innovation is a residential, full-time, twelve-monthprogram that differentiates itself in the market via its “dedicated approach” to entrepreneurialengineering education - a dedicated curriculum, a dedicated space and a dedicated faculty.This dedicated model, as detailed in the sections below, has been designed as the foundation foreducating students with a variety of undergraduate backgrounds in engineering (includingmechanical, electrical and chemical), business (including finance, accounting and marketing), thenatural sciences (such as physics and biology) and
inthe local context. This study is significant because engineering problems often arise fromlocal contexts. Without incorporating the study of these local contexts into engineeringcurricula, even skilled engineers may struggle to solve local challenges effectively.The paper critically engages with various global initiatives that aim to incorporate Indigenousknowledge into engineering education in order to adopt a similar approach to the Indiancontext. One way forward could be to integrate the study of Pramanas - traditional Indianepistemological tools - into the engineering curriculum, thus bridging the gap betweenengineering education and the local Indian context.This study demonstrates how integrating local knowledge systems into engineering
where he has taught since 1990. Prior to this he taught for seven years at different institutions and twenty years service in Air Force and petroleum industry. He is a registered Professional Engineer and Member of National Society of Professional Engineers and Member of IEEE since 1990. He and the department faculty had extensive curriculum revisions for the Engineering Technology Department which has led to TAC of ABET accreditation. Page 22.673.1 c American Society for Engineering Education, 2011 Expanding a Manufacturing Technology Curriculum to Include
course (this has held consistent for courses taught in Python and MATLAB).Additionally, our students have complained they are disadvantaged because their instructionused different languages and was missing deep study in a single language relevant to industry.Our introductory programming course switched to Python five years ago, and thus our studentshave even less preparation and familiarity with MATLAB than they had previously, this being amajor impetus towards migrating the BME curriculum to Python. We recently reached out to aMedTech industry executive who hires biomedical engineering graduates who estimated that ittakes 6 months for students to become proficient in a new language and having studentsalready trained in Python would give them a
AC 2009-151: INTEGRATING SYSTEMS-ON-CHIP IN AN UNDERGRADUATEECE CURRICULUMYing Tang, Rowan University Ying Tang is Associate Professor of Electrical and Computer Engineering at Rowan University, Glassboro, NJ. She received the B.S. and M.S. degrees from the Northeastern University, P. R. China, in 1996 and 1998, respectively, and Ph. D degree from New Jersey Institute of Technology, Newark, NJ, in 2001. Her research interests include operational research, discrete event systems, Petri nets applications, artificial intelligence, and hardware and software co-design.Linda Head, Rowan University Linda M. Head is an Associate Professor of Electrical and Computer Engineering at Rowan
. She then graduated from Texas A&M Univer- sity with a M.S. in Mathematics and Ph.D. in Educational Psychology with a specialization in Research, Measurement and Statistics.Dr. Karen E Rambo-Hernandez, Texas A&M University Karen E. Rambo-Hernandez is an associate professor at Texas A & M University in the College of Edu- cation and Human Development in the department of Teaching, Learning, and Culture. In her research, she is interested in the assessing STEM interventions on ©American Society for Engineering Education, 2023 Cultivating an Inclusive Environment in Computer Science: Validity Evidence for a New ScaleAbstractThis research paper describes
used the previous time that the course was taught unless specifically invited by senior faculty and/or the chair to choose an alternative.I. Do not come in and try to immediately revamp the curriculum with new courses or changes in degree plan. This will enrage faculty colleagues. Again, over time, acquire experience and then diplomatically suggest curriculum changes or new courses [9]. To come in like an arrogant, overly confident “bull in the china cabinet” will label one as Page 8.262.9 Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American
. A case study-baseddiscussion will be provided on how Mechatronics and Renewable Energy curricula could be usedas potential options to address the multi-/interdisciplinary skills gap. These curricula could beapplied at multiple levels of engineering education, including high school, 2-year programs, andhigher education. Thus, they present a broad modular approach that could address several areas ofneed in the Sustainable Engineering field.Keywords: Sustainable engineering, curriculum design, innovative teachingIntroduction:In the next 30 years, the existing 8 billion people on the planet are predicted to grow byapproximately 2 billion. Therefore, using natural resources to enable people to live harmoniouslyand sustainably will rise along