Paper ID #40215Enhancing participation, engagement, and retention in undergraduate andgraduate curriculum through applied energy conversion courseDr. Anveeksh Koneru, University of Texas of the Permian Basin Dr. Anveeksh Koneru is an Assistant Professor of Mechanical Engineering at the University of Texas Permian Basin. He is the Engineering Summer Camp coordinator and the graduate program head at the College of Engineering. His primary research includes thermoelectrics, photocatalysis, and carbon capture. ©American Society for Engineering Education, 2023 Enhancing participation, engagement, and
becomes very important. In the paper, we will present:• The list of certifications that were carefully selected and the fields they cover: o Promoting vendor neutral certifications o Allowing customized certifications for experienced students.• The complete degree plan with the embedded certification: o When to take the certification o What SLOs should be covered in courses leading to the certification• The course developments for these certifications and how they are delivered: o Department-wide course template and resources• Resources available to the students: o Internal and external o A live and ever-expanding compiled set of resources• Practical and mock exams• Compilation of ads
, a number of difficulties become evident. Enrollment does not supportadding a new course in drives, even as a special topics subject. Faculty and student resources for such acourse, particularly time, are already committed. Such a course may be too specialized for mostundergraduate curricula anyway. Therefore, this paper will not address developing a new course inelectronic drive systems. For those wishing to do so, this author can provide the name and location ofseveral who have developed successful electronic motor drives courses, at both undergraduate andgraduate levels. Nonetheless, within an existing curriculum that contains an electromechanical energy conversioncourse, a practical opportunity to incorporate electronic drives
. In orderfor students to engage in deep conceptual learning, they need to address questions such as whichconcepts apply, why certain equations are used, how and why they were derived, and how theseequations and concepts relate to each other. However, significantly less emphasis is placed onthese topics throughout a traditional undergraduate Electrical Engineering curriculum. Exploringand reflecting on these questions throughout the curriculum will help students create conceptualnarrative arcs that are connected, giving them a more holistic view of Electrical Engineering andcreating more capable engineers.FrameworkThe framework proposed here contains three parts to help facilitate the development ofconnected narrative arcs: definition, initial
. Page 26.994.2 Figure 1: Schematic diagram of the Toyota Hybrid System showing the major components. Students at Rowan University design and build a bench-scale version of this powertrain over the course of five semesters.IntroductionOne of the most exciting innovations in automotive technology is the development andrealization of the hybrid-electric powertrain. The most commercially successful hybrid vehiclehas been the Toyota Prius; a schematic diagram of the Toyota Hybrid System is shown in Figure1 [1].Students at Rowan University design and fabricate a bench-scale version of the THS over thecourse of five semesters, as a way of integrating the Mechanical Engineering curriculum
thermophysical properties, and advanced thermal management. Prof. Roberts is also interested in engineering education, specifically on understanding the role of, adopting, and creating open educational resources for the engineering curriculum. c American Society for Engineering Education, 2018 Open Educational Resources in the Undergraduate Engineering Curriculum: A Materials Science Case Study Amir Behbahanian1 , Erin L. Davis2 , Spencer Wendel1 , and Nick A. Roberts1 1 Department of Mechanical and Aerospace Engineering 2 Merrill-Cazier Library Utah State
AC 2008-297: IMPLEMENTATION OF CAD/CAM/CNC CURRICULUM USINGMASTERCAM X SOFTWARE IN TECHNICAL PROGRAMSFarzin Heidari, Texas A&M University, Kingsville Page 13.702.1© American Society for Engineering Education, 2008 Implementation of CAD/CAM/CNC Curriculum Using MastercamX Software in Technical ProgramsIntroductionOne of the major contributions to the growing acceptance of Computer Numerical Control(CNC) has been the development of Computer Aided Manufacturing (CAM). A ComputerAided Manufacturing (CAM) program uses a CAD drawing, and then adds the cuttingparameters to generate the CNC program.MastercamX is PC-based CAD/CAM software, which
programming.Theses robots usually contain a microcontroller, a few sensors, motors, and a body. Thesecourses are excellent vehicles for teaching engineering concepts and they tend to be dominatedby hardware concepts. This paper will discuss whether such a course is adequate for computerengineering area of specialization in a computer science department.In our computer science department, there are four areas of specialization. These four areas ofspecializations are computer science, software engineering, networking, and computerengineering. In this curriculum, the students matriculate into the CNS department aftersuccessfully completing the requirements of 30 hours of core courses common to all computerscience students. The students continue taking core
Green Design Project Part 1: The Hybrid Powertrain ProjectAbstractSubjects that are separate in the curriculum, such as thermodynamics and mechanical design, areintegrated in practice, since thermal and mechanical systems must function cohesively in realmechanical systems (e.g. an air conditioner). With this in mind, we are beginning theimplementation of a novel, potentially transformative approach to integrating courseworkthrough five semesters of the core mechanical engineering curriculum.The centerpiece of this research is a long-term design/build/test project that will be developed bystudents over the course of five semesters. The project, a bench-scale hybrid powertrain, isimplemented in modules, so that parts of the
lower-division core curriculum and the effects thatthese curriculum changes have on students, faculty, and pre-engineering programs. In addition,the paper explores the implications on the future of the engineering educational system, the costto taxpayers, and the system’s effectiveness at producing the engineers that are needed to ensurethe viability of the engineering profession.IntroductionEngineering is defined as the profession “that applies knowledge of the mathematical and naturalsciences gained by study, experience, and practice to develop ways to economically utilize thematerials and forces of nature for the benefit of humankind.” 1The National Society of Professional Engineers (NSPE) asserts that engineering educationalprograms must
employers,and students, the department has already made some initial changes to its curriculum andwill continue to work towards satisfying the needs of industry while remaining incompliance with our accrediting body’s guidelines. Page 10.1035.8Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering EducationThe department is currently in the process of developing several specific courses as aresult of this feedback. While not identified on the surveys distributed to employers, wereceived via roundtable discussions that two expectations
broad parameters. The inquiry undertook the Page 3.245.4study of all engineering education providers in terms of their academic staffprofiles, researchand consultancy activities of the staff members, quality of laboratory and researchequipment,and engineering curriculum development. Recommendations from the Institute of 4Engineers and its various disciplinary components, surveys undertaken by employer groupsand university centres for higher education studies were also evaluated by the inquiry. In thesummary of its conclusions the Williams Committee
Wireless Networks. He is actively involved in curriculum development and revision. He has worked on a successful project funded by FDIP to enhance instructional excellence of part time fac- ulty and teaching assistants using hybrid orientation programs. He has also been involved in two recently funded instructional research grants from NSF-CCLI (Co-PI) and NSF-REU (senior personnel). Prior to his current position, he was involved in the design of electrical systems of different nature viz. industrial, public as well as low voltage communication systems. In 2008, he received the College of Technology’s Fluor Daniel Award for teaching excellence. He is also a recipient of Stony Brook Presidential Fellowship for the
addressed by developing laboratorytasks that would strengthen students‟ product building skills. Several laboratoryexercises including conventional and CNC machining, powder metallurgy, rapidprototyping techniques, MIG welding and plastic injection molding were developed andincorporated in the course curriculum. The hands-on curriculum was implemented sincethe Fall „06 term. The students‟ feedback was excellent as indicated by the SIR II surveyfeedback and students‟ reflection on the laboratory tasks. The new course had a greaterwork load as compared to the previous non-laboratory version, but the students seemed toenjoy it better and also their performance in the course was better. Further improvementsto the course could be made by effective
Paper ID #33351Engineering Curriculum Rooted in Active Learning: Does It PromoteEngagement and Persistence for Women?Leanne Kallemeyn, Loyola University Chicago Leanne Kallemeyn, Ph.D., is an Associate Professor in Research Methodologies at Loyola University Chicago. She teaches graduate-level courses in program evaluation, qualitative research methods, and mixed methods. She has been the PI on seven major evaluation projects that ranged from one to five years in length. Her scholarship focuses on practitioners’ data use and evaluation capacity building within non-profits through coaching. She received a Bachelors in
skills needed by future technicians should be considered more in AMCurriculum Framework development of ensure a higher match. This consideration is especiallytrue since the AM Competency Model is the source for employer-desired competencies.5.4. Implications.5.4.1. Implications for educational institutions. Two- and four-year AM degree programs aredeeply connected to their local communities and economy. These programs, such as those atstate and community colleges in Florida, should strongly align with the needs of local employers,and incorporate state and national workforce needs. Curriculum planning committees maybenefit from knowing the extent to which there is topical alignment and rigor in curricula todevelop future AM students. Including
Page 12.120.1© American Society for Engineering Education, 2007 1 A STREAM IN PROCESS SYSTEMS ENGINEERING (PSE) IN THE UNDERGRADUATE CHEMICAL ENGINEERING CURRICULUM T. Marlin*, A. Hrymak, J. MacGregor, V. Mahalec, P. Mhaskar, and C. Swartz Department of Chemical Engineering McMaster University 1280 Main Street West Hamilton, Ontario, Canada L8S 4L7 (marlint@mcmaster.ca)1. IntroductionProcess Systems Engineering (PSE) plays a central role in the chemical
modeling in an engineering design graphicscourse. Cole (1999)3 articulated a similar strategy to include FEA as part of a philosophy ofintegrating CAD into the Mechanical Engineering Technology curriculum. Ural & Yost (2010)4report developing a freshman level project to investigate the behavior of a SMARTBEAM®, inwhich the FEA and experimental measurements are conducted simultaneously and compared. Ineach of these cases, use of FEA as a practical tool is emphasized, and none appeared to requirestudents to learn the underlying FE theory or to know principles of mechanics of materials apriori. Numerous other examples, not cited here, appear to exist in introductory freshman designcourses.In contrast to the situation with freshman courses
design, design thinking, and design innovation courses. Dr. Lande researches how technical and non-technical people learn and apply design thinking and making processes to their work. He is interested in the intersection of designerly epistemic identities and vocational pathways. Dr. Lande received his B.S. in Engineering (Product Design), M.A. in Education (Learning, Design and Technology) and Ph.D. in Mechanical Engineering (Design Education) from Stanford University. © American Society for Engineering Education, 2022 Powered by www.slayte.com Making Learning Goals More Apparent Across the Curriculum for Mechanical Engineering Fundamentals and
measures at both the site and watershed scale. She is a past Chair of the Civil Engineering Division of ASEE. American c Society for Engineering Education, 2021 Employing Augmented Reality Throughout a Civil Engineering Curriculum to Promote 3D Visualization SkillsAbstractUse of Augmented Reality (AR) sandboxes has gained popularity in “please touch” sciencemuseums and introductory earth and environmental science courses to facilitate studentvisualization of concepts in three dimensions. University faculty who have access to ARsandboxes typically utilize them in discrete learning experiences (i.e., one specific activity,module, or course), rather than a
curriculum development in addition to pursuing her engineering research related to noninvasive testing and biomedical applications.Jenny Lo, Virginia Polytechnic Institute and State University Dr. Jenny Lo, assistant professor of Engineering Education at Virginia Tech, is interested in understanding and improving engineering curriculum at the freshman level, engineering ethics, and promotion of undergraduate research. Page 13.716.1© American Society for Engineering Education, 2008 Improving Ethics Studies through a Spiral Themed Curriculum: Piloting an Ethics Discussion at the Senior
AC 2007-1121: A FOUR-YEAR PROGRESSION OF OPEN-ENDED PROJECTS INAN UNDERGRADUATE BIOMEDICAL ENGINEERING CURRICULUMDaniel Cavanagh, Bucknell UniversityJoseph Tranquillo, Bucknell UniversityDonna Ebenstein, Bucknell University Page 12.40.1© American Society for Engineering Education, 2007 A Four Year Progression of Open-Ended Projects in an Undergraduate Biomedical Engineering CurriculumAbstractOne of the important instructional goals of our Biomedical Engineering Program is to providestudents with the opportunity to develop strong, independent project skills in both the classroomand the laboratory. To accomplish this goal, the Program has developed a
Paper ID #41688Board 141: Incorporating Sustainability into Engineering Curriculum ThroughProject-Based Learning (PBL)Dr. Aaditya Khanal, The University of Texas at Tyler Aaditya Khanal, PhD is an Assistant Professor of Chemical Engineering at the University of Texas at Tyler. His research interests fall within the energy and climate nexus, aiming to improve prosperity and sustainability through solutions in renewable energy, carbon sequestration, and underground hydrogen storage. He is certified in effective college instruction by The Association of College and University Educators and the American Council on
Paper ID #34171Cross Sectional Assessment of CEM Curriculum Offerings at thePre-college level in North Carolina (Evaluation)Ms. Cayla Lenore Anderson, Clemson University Cayla Anderson is a doctoral student and graduate research assistant in the Planning, Design, and Built Environment program at Clemson University. Her research interests include construction education at the pre-college level, workforce development for minorities in construction, and gender and space in- tersections on construction jobsites. Her interests stems from her experience as a Black woman in the construction industry. Cayla received a dual
, to team assessed, relatively ‘high stakes,’ oral and written capstonepresentations in the later academic courses. This trend shows a methodical progression within thedepartment, which is designed to develop foundational communication skills, and then put thoseskills into practice. A possible area for improvement within the curriculum is identifying courselinkages and then intentionally scaffolding them through synchronized grading rubrics. Thiswould serve to improve long-term retention by building upon specifically assessed technicalcommunication skills. Continued improvement of grading rubrics and introduction of a technicalcommunication course could also serve to enhance student technical communication skills.ReferencesABET 2020
cyber security education, training, and awareness in the undergraduate curriculum (CSETA). In 2014 ASEE Annual Conference & Exposition, June 2014. [4] R. Bell, E. Vasserman, and E. Sayre. A longitudinal study of students in an introductory cybersecurity course. In 2014 ASEE Annual Conference & Exposition, June 2014. [5] J. Zalewski et al. Curriculum development
: 10.1002/cae.22570.[10] G. List, “Introducing Civil Engineering Analysis Through Programming,” in 2007 Annual Conference & Exposition Proceedings, Honolulu, Hawaii: ASEE Conferences, Jun. 2007, p. 12.961.1-12.961.10. doi: 10.18260/1-2--2303.[11] Microsoft Excel, “Announcing Python in Excel: Combining the power of Python and the flexibility of Excel.” Accessed: Jul. 30, 2024. [Online]. Available: https://techcommunity.microsoft.com/t5/excel-blog/announcing-python-in-excel-combining-the- power-of-python-and-the/ba-p/3893439[12] G. P. Wiggins and J. McTighe, Understanding by Design. in Gale Reference. Association for Supervision and Curriculum Development, 2005. [Online]. Available: https
education to integrateembedded systems education into their curriculum. The authors did this study to decide whichmodel is the best choice for their students.Embedded Systems EngineeringThe area of Embedded Systems Design has been gaining a tremendous growth in recent years. Amajor aspect of this growth has been the addition of networking technologies and operatingsystems to embedded systems. Embedded systems have application in many areas such asautomotive/transportation, government/military, medical equipment, telecommunications,avionics/aeronautics, aerospace electronics, office automation, data-communication, industrialautomation, and consumer electronics1. About 98% of all the 32-bit microprocessors currently inuse worldwide are used in
Session 2530 The Unique Research Curriculum, Motivations, and Results of the Rockdale Magnet School for Science and Technology William W. Smith, Jr / Angela Hinson Quick Georgia Tech / Rockdale Magnet School for Science and TechnologyIntroductionOpening in the 2000 academic year, the Rockdale Magnet School for Science and Technology isan alliance between the Georgia Institute of Technology’s College of Engineering and theRockdale County (Georgia) Public Schools. This magnet high school provides a uniquecombination of required research classes and projects, an international research
Session 3263 The Role of Process Safety Management in the Manufacturing Engineering Curriculum Charles U. Okonkwo And Jerry Gintz Arizona State University East ABSTRACTProcess safety management (PSM) is fast becoming a necessary constituent of a manufacturingengineering student’s education. The impact of government regulations relating toenvironmental and safety concerns in the