Delaware where he expanded his knowledge on simulation of multiphase flows while acquiring skills in high-performance parallel computing and scientific computation. Before that, Dr. Ayala held a faculty position at Universidad de Oriente where he taught and developed courses for a number of subjects such as Fluid Mechanics, Heat Transfer, Thermodynamics, Multiphase Flows, Hydraulic Machinery, as well as different Laboratory courses. Additionally, Dr. Ayala has had the opportunity to work for a number of engineering consulting companies, which have given him an important perspective and exposure to the industry. He has been directly involved in at least 20 different engineering projects related to a wide range of industries
over the past twodecades, although disagreement exists concerning how ethics can and should be taught in theclassroom. With the support from the National Science Foundation (NSF) ImprovingUndergraduate STEM Education (IUSE) program, a collaboration of investigators from theUniversity of Connecticut, New Jersey Institute of Technology, University of Pittsburgh, andRowan University are conducting a mixed-methods project investigating how game-based orplayful learning with strongly situated components can influence first-year engineering students’ethical knowledge, awareness, and decision making. We have conducted preliminary analyses offirst-year students’ ethical reasoning and knowledge using the Defining Issues Test 2 (DIT-2),Engineering
engineering over the past twodecades, although disagreement exists concerning how ethics can and should be taught in theclassroom. With the support from the National Science Foundation (NSF) ImprovingUndergraduate STEM Education (IUSE) program, a collaboration of investigators from theUniversity of Connecticut, New Jersey Institute of Technology, University of Pittsburgh, andRowan University are conducting a mixed-methods project investigating how game-based orplayful learning with strongly situated components can influence first-year engineering students’ethical knowledge, awareness, and decision making. We have conducted preliminary analyses offirst-year students’ ethical reasoning and knowledge using the Defining Issues Test 2 (DIT-2),Engineering
dynamics. By including a diverse set of students as the problem solvers in the videosused in class, the author would not only get some help expanding the tool, but also do so in away that expanded the diversity of possible role models that the students were exposed to as partof their class experience. The rest of the paper explores the theoretical foundation of the project,the methodology used, some preliminary assessment results, and the future avenues of researchfor the project.Background and Literature Review:Open Educational Resources and the Mechanics Map Project:The line of research discussed in this paper was born out of a necessary expansion of theMechanics Map Project [1], an online resource for engineering statics and dynamics. With
] regardless of age. More recently, theVR modules were found to engage students via dynamic interaction with the necessaryinformation for critical thinking [21], spatial reasoning ability [22], and 3D modeling [23], toname a few.At Prairie View A&M University, a hammer fabrication project (see Fig.2) involving the manuallathe, milling machine, and drill press had been traditionally used to train students withmachining devices. Due to space limitations, limited equipment, staff, and safety requirementswithin the laboratory, relevant experiments were usually conducted in groups of 3~4 students ata time. This infrastructure gave each student minimal hands-on experience each week, perhaps acouple of minutes at maximum. The lack of hands-on experience
1-7 student outcomes. Since the FCY curriculum was implemented in Fall 2020, the faculty member(s) of each newly added course to the FCY curriculum gave a presentation to Dean, associate deans, department heads, and disciples in Fall 2021. They presented their evaluation of students’ attainment of each course objective and the mapped ABET student outcomes, an example is shown in the later section of this paper. Also, they presented samples of students’ projects and presentations. At the end of their presentation, they presented what went well and what did not since this was the first experience of the FCY curriculum. The disciples provided feedback to faculty members of the FCY during and after the presentation. Furthermore, the
place in the latteryears of a 4-year MET program, this research can provide a baseline understanding of how METstudents approach design problems so better strategies can be developed to provide appropriatescaffolding as design skills are taught throughout the program.Introduction Mourtos emphasizes the importance of engineering design by considering design as theheart of engineering [1]. Design capstone experiences have been a staple of engineering andengineering technology programs and are excellent tools for bringing practical engineering intothe curriculum [2], however, typically such projects have been in the final year of typicalundergraduate program. Recently however, a resurgence in first-year, or cornerstone engineeringdesign
Honors Society, is a Student Research Mentor, is a Dean’s Honors student, and also serves her community by sitting on the Academic Commis- sion Committee, the Student Services Committee, and the ICC Funding Committee. Additionally, in her free time, Sophia decided to teach herself Python and is now leading the research project Studying Statis- tics in Python. In the future, she hopes to become a physician-scientist studying preventative measures for Alzheimer’s disease and treatments for Charcot-Marie-Tooth (CMT) disease. ¨Ms. Sophia Isabella Ibarguen, Pasadena City College Sophia Ibarguen is a first-generation college student of immigrant parents, who is majoring in Biology and minoring in
conference.COVID-19 has both exacerbated and made more obvious the unevenness and inequities in oureducational practices, processes, and infrastructures. This paper is an extension of a broadercollaborative research project that accounts for how an exceptional group of engineeringeducators have taken this opportunity to socially broaden their curricula to include not just publichealth matters, but also contemporary political and social movements. Engineering educators forchange and advocates for social justice quickly recognized the affordances of diverse forms ofdigital technologies, and the possibilities of broadening their impact through educationalpractices and infrastructures of inclusion, openness, and accessibility. They are makers of whatGary
aims to answer the question: Do design competencies and learning types differ acrosslearning communities with varied degrees of making integrated into the curriculum? And if so,how?2 BackgroundMersand [12] broadly defined makerspaces as “places where participants may work together tocreate and co-create knowledge and physical or digital products” (p. 175). Activities can rangefrom engineering, tinkering, circuitry to crafting and forms of artistry, as well as much more [4,13]. Makerspaces are open spaces for any student to work on academic, extracurricular, orpersonal projects, and for many, makerspaces are the embodiment of learning by doing.Over the last fifteen years, the number of makerspaces has increased dramatically as the MakerMovement
courses complementing the primary major, and atwo-semester capstone project course; 10 courses worth 30 credit hours in total.Figure 1: Program outline. Shaded courses form a required core. Arrows to electives are notdrawn, different core courses are prerequisites for different electives.2.2 Core coursesThe goal of the core courses is to develop fundamental knowledge and skills. All core courseshave non-credit weekly labs associated with them.2.2.1 Introduction to Computer Science IIntroduction to Computer Science I (Intro I) course is designed for students with no priorbackground in computing. It has two central aims. The first aim is to enable the students todevelop computational solutions to practical problems: • Break a
QUALITY OF UNDERGRADUATE EDUCATION IN THE COLLEGE OF ENGINEERING AT THE UNIVERSITY OF WISCONSIN-MADISON by Scott J. Conrad University of Wisconsin ABSTRACTThis paper summarizes a project undertaken by three undergraduatestudents at the University of Hisconsin-Madison to assess the qualityof engineering education. The project involved developing a surveyinstrument to measure 11 qualityn and administration of the survey toundergraduates, recent graduates and faculty. Results and highlightsof recommendations generated by the survey are also presented. 22
c Society for Engineering Education, 2021 Academic and Industry Collaboration – A Literature ReviewAbstractAs part of a larger project determining best practices for establishing and maintaining effective,sustainable, collaborative relationships between academic and industry professionals, thisreview will outline the available materials and, conversely, the multiple gaps that exist regardingcourse content, methods of teaching, and practical experience relating to preparation for careersin engineering and engineering technology. Currently, there is no clear agreement on whichprinciples and practices best enable industrial partners and academic institutions to establishand maintain mutually-beneficial partnerships. In fact
certain aspects of your identity with thegoal of being perceived as non-LGBTQ+ in certain settings) demands on both students andfaculty. With regard to faculty, when comparing academic climate and career consequencesamong LGBTQ faculty in various fields, Partridge, Barthelemy, and Rankin found that those inSTEM fields reported the highest level of discomfort on campus, in departments, and inclassrooms; those who faced discomfort were more than twice as likely to consider leaving theirinstitution [5].This project builds on the success of a previous exploratory phase [title deleted to maintain theintegrity of the review process] and aims to support engineering departments’ efforts to createLGBTQ+-inclusive environments. While our project focuses
successful designs, discover biomimetic projects that are currentlyunderway, and experiment with biomimetic strategies to better solve the problems by achievingthe benefits without the issues. This curriculum helps change the mindset and foster creativity inthe next generation of engineers who will be tasked with solving the problems of the future. Thispaper will explain the course in greater detail, and how its approach differs from conventionalengineering education. It will provide perspectives from students of different disciplines who havetaken the course, co-instructed in the course, and are currently applying their changed mindset totheir research and jobs.IntroductionTeaching the next generation of engineering students to solve problems
Freshman Engineering Program, in the Benjamin M. Statler College of Engineering and Mineral Resources at West Virginia University (WVU). She graduated Summa cum Laude with a BSME in 2006, earned a MSME in 2008, and completed her doctorate in mechanical engineering in 2011, all from WVU. At WVU, she has previously served as the Undergraduate and Outreach Advisor for the Mechanical and Aerospace Engineering department and the Assistant Director of the Center for Building Energy Efficiency. She has previously taught courses such as Thermodynamics, Thermal Fluids Laboratory, and Guided Missiles Systems, as well as serving as a Senior Design Project Advisor for Mechanical Engineering Students. Her research interests
) executive board, and is past chair of the ASEE Electrical & Computer Engineering Technology Department Heads Association (ECETDHA). c American Society for Engineering Education, 2017 MAKER: A Sound Introduction to Engineering Technology and Product DevelopmentAbstractThis paper outlines the implementation of an active-learning experience that has been designedto introduce high school students to engineering technology and product development. In a three-hour program, students are guided through the construction of an amplifier circuit and speakercone assembly while the various engineering roles with product development are discussed. Thismultidisciplinary project touches on
. Mike’s research concerns how people think and learning, and specifically how technology can enhance the way people think and learn. His NSF-funded project, GEEWIS (http://www.geewis.uconn.edu/), focused on streaming real-time water quality pond data via the Internet and providing support for the integration of this authentic data into secondary and higher education science classrooms. His approach features the analysis of log files, ”dribble files,” that maintain time-stamped listing of navigation choices and lag time. This approach has been applied to hypertext reading (Spencer Foundation grant), videodisc-based prob- lem solving (Jasper project), and online navigation (Jason project). Recent work concerns playful
early as in theirfreshman year. Effective written communication skills are important for engineering education,with critical thinking being one of the most important aspects of the learning process at thecollege level. However, the efforts in required core curriculum English and communicationcourses are not always further integrated into engineering curriculum. Introducing a technicalpaper writing assignment in lower division engineering courses had the purpose of helpingstudents to be better prepared for major writing assignments in their upper division courses aswell as for their capstone project. For this study a writing assignment was introduced in anElectrical Circuits course, for electrical engineering technology students at Old
Engineering at the University of North Carolina at Charlotte (UNCC), and was previously an Associate Professor of Civil Engineering at the University of Puerto Rico at Mayaguez (UPRM). In addition to his research in Geotechnical Engineering on the topics of soil-structure interaction and engineering characterization of geomaterials, Dr. Pando has been actively involved in teaching and mentoring students at both UPRM and UNCC, including 14 undergraduate civil engineering students through the NSF Louis Stokes Alliance for Minority Participation Program. Examples of his recent and ongoing engineering education research projects include the development of a Bridge to the Doctoral Program to attract Latinos to geotechnical
manufacturers’demonstration objects usually print well, student-designed objects do not, thus causing delays instudent projects. This work describes 3D-printing laboratory experiences with unsuccessfulprints (based on over 3000 print hours) in an undergraduate engineering 3D-printing lab usinginexpensive 3D printers implementing fused deposition modeling (FDM) technology.Unsuccessful prints caused by 3D printer failures and by 3D-printing process failures areclassified based on severity (catastrophic, compete, and partial failure types), analyzed, andcorrected. The solutions include reprinting the failed objects using different object orientations,changing the printing material, changing the printing platform surface properties, rework byusing tools like 3D pens
, associate professor of Biological Systems Engineering at Virginia Tech, is interested in improving the bioprocess curriculum using a spiral themed approach. Page 12.854.1© American Society for Engineering Education, 2007 Improving Ethics Studies through a Spiral Themed Curriculum: Implementing Ethics Discussion at the Sophomore LevelAbstractTo enhance ethics training during the undergraduate career, engineering ethics material shouldbe presented throughout the engineering curriculum. In continuation of the Department LevelReform (DLR) project, funded by the National Science Foundation (NSF), two departments
for pre-service STEM education majors in Page 12.1380.2partnership with colleges and universities of higher learning. The PSTP project has beenongoing since 1995 with the overarching goal of providing enrichment activities to pre-service STEM teachers, expose them to best practices in K-12 STEM education, andintroduce them to advanced technologies utilized at NASA, government laboratories, andmodern industries that have relevance to K-12 STEM education.UMES partnered with NASA, National Institute of Aerospace, and Bennett College forWomen to host the 11th Pre-service Teacher Program for the first time. As in the past theprimary emphases were on (i
, finiteelement analysis (FEA), and simulations such as Impact/Crash. Communicationsissues might include Step and IGES direct transfer and e-conference via computeror video. Knowledge of cost issues must incorporate the fact that both labor andengineering costs in China run at 5-10% of U.S. rates.Capstone courses can integrate many of these techniques and provide seniorstudents with actual data and examples from current faculty projects.1. Overview Page 12.1176.2As documented by Tucker2, international supply chains are increasing in scopeand complexity. “The trend in manufactured goods is toward more outsourcing;greater complexity in international supply chains… U.S
AC 2007-1484: MEASURING STUDENT LEARNING AND ENGAGEMENT IN ANINTRODUCTORY ELECTRICAL SCIENCE COURSEHaley Haywood, Oklahoma State UniversityForrest Austin, Oklahoma State UniversitySeth Williams, Oklahoma State UniversityCameron Musgrove, Oklahoma State UniversityCharles Bunting, Oklahoma State University Page 12.1043.1© American Society for Engineering Education, 2007 Measuring Student Learning and Engagement in an Introductory Electrical Science CourseAbstractDoes encouraging student development through projects increase engagement in a course? Canwe use student performance on case studies to measure learning? These questions arose indiscussions
AC 2007-1519: NSF GRANTEE PRESENTATION: RESULTS OF ACOLLABORATIVE REMOTE “OPTICAL CIRCUITS” LABORATORYIMPLEMENTATIONDeniz Gurkan, University of HoustonAlan Mickelson, University of Colorado at BoulderDriss Benhaddou, University of Houston Page 12.1114.1© American Society for Engineering Education, 2007 NSF Grantee Presentation: Results of a Collaborative Remote “Optical Circuits” Laboratory ImplementationThe ROCK (Remote Optical Circuits Knowledge) project is an NSF funded project thataims to create remotely-controlled optical circuits laboratory experiments. We expect thisproject to help introduce hands-on laboratory for distance education. While hands
of engineering, the nature ofengineering design and the cognitive processes involved in this complex activity are not widelyunderstood. How to effectively teach the design process is even less understood. Learningengineering design is a complex process, and it is most often taught in engineering via project-based courses in which instructors guide students through the design process.In their review of research related to the teaching and learning of engineering design, Dym,Agogino, Eris, Frey, & Leifer7 assumed that “the purpose of engineering education is to graduateengineers who can design, and that design thinking is complex.” (p. 103) They discussed thetension in many engineering curricula between importance of design and engineering
in the College of Engineering and Mineral Resources at West Virginia University in Morgantown, West Virginia. He obtained his BS degree from the University of Roorkee, now IIT – Roorkee, MS from WVU, and is working on his Ph.D. degree at WVU. He is a member of AACE International, IIE, INFORMS. Page 12.1285.1© American Society for Engineering Education, 2007 Software for Materials EvaluationAbstractMulti-disciplinary team projects are an important element in the ABET accreditation ofengineering programs. The basic manufacturing processes course in the Industrial EngineeringProgram at West
, Chennai, isacknowledged as an “outstanding corporate campus” and is India’s largest constructionorganization. Seventeen Strategic Business Units (SBUs) drive ECC’s business activities toformulate policies, perform marketing functions, and ensure project execution to internationalbenchmarks of quality and speed. The design activities are centralized in the EngineeringResearch and Design Center (ERDC), also located in Chennai. ERDC offers engineering, design,and consultancy services in civil, structural, mechanical, electrical, and instrumentationengineering for a variety of projects and industrial structures. With over 350 experiencedengineers, architects, and 100 draftspersons, ERDC is the largest and best-equipped engineeringdesign office in
, NM.Michael Lesiecki, MCCCD Michael Lesiecki is Director of the MATEC organization - a national center devoted to educational technology development for community colleges.Thomas McGlew, Maricopa Advanced Technology Education Center Tom McGlew is Project manager for the ESYST program which has been funded by the NSF to develop systems-oriented educational programs for use in community colleges. Page 13.1269.1© American Society for Engineering Education, 2008 The Technology World is Changing Rapidly. Can Higher Education Match the Pace?AbstractNew electronics technology has been the