engineering design research focuses on developing computational representation and rea- soning support for managing complex system design. The goal of Dr. Morkos’ design research is to fundamentally reframe our understanding and utilization of system representations and computational reasoning capabilities to support the development of system models which help engineers and project planners intelligently make informed decisions at earlier stages of engineering design. On the engineer- ing education front, Dr. Morkos’ research explores means to enhance engineering education, improve persistence in engineering, and address challenges in senior design education. Dr. Morkos’ research is supported by government [National
-disciplinary programs in sustainable infrastructure,then it is very possible some of the approaches detailed herein will prove useful to otherDepartments of Civil Engineering. Page 26.802.13References1. Koehn, Enno. Professional program criteria for civil engineering curriculums . Journal of Professional Issues in Engineering Education and Practice, 2010 Vol 126, No. 4, pg 174-179.2. Civil Engineering Body of Knowledge for the 21st Century: Preparing the Civil Engineer for the Future. American Society of Civil Engineers, 2004.3. Finding Accredited Programs. (http://main.abet.org/aps/Accreditedprogramsearch.aspx), accessed October 30
(ST), which is why we propose to think how to include, in engineeringeducation, some of the abilities or skills from ST, and from the math education perspective. Thereport [2] explicitly mentions the work done by Senge [4] and motivated by this fact this paperaims to show the advantages and benefits of incorporating systems thinking in a math class. It ishoped that through this, it can be stated that the wealth of integrating the two seemingly disjointin two different disciplines (Systems Thinking and Mathematics). The present work shows theresults of the design of an innovative course of Differential Equations (DE), by means of usingmodeling and computer simulation, to have an active learning environment [4]. This course hasbeen taught for
impactsummative assessment later in the course1. Competency integrated standards of achievementprovide guidelines for improvement including strengths and weaknesses of the course, contentchanges, methods of content delivery, and assessment8.Competency is defined as having the ability to do a set task(s) focusing on the application ofknowledge and not only on the acquisition of knowledge or skills8,9. Using competency basedstandards, the strengths and weakness of a course could be effectively determined8. One methodis to define a competency based curriculum, where students have to achieve a minimum level ofknowledge in their studies to graduate. These competencies provide a set of guidelines for studentsto move closer to their educational goals. These
and entrepreneurial activities in Europe, Asia and Africa. Dr. Friess’ research background includes fluid mechanics, composite materials, performance optimization, and global engineering education. Current research interests focus on engineering education, in particular curriculum integration and innovative pedagogical methods.Mr. Eric L. Martin, University of Maine Eric Martin earned his B.S. and M.S. in Mechanical Engineering at the University of Maine in 1998 and 2010, respectively. For fourteen years he provided mechanical engineering services in the areas of vacuum science, electro-chemical sensors, and tribology. Some of his work includes designing and building a Sonde to measure green-house gases deep within
Luegenbiehl on global moral issues for engineers. His research and teaching interests include engineering ethics, philosophy of tech- nology, Chinese philosophy, political philosophy, and science, technology, and society studies. Rockwell completed his PhD at Purdue University, West Lafayette, MA at the Katholieke Universiteit, Leuven, Belgium, and BA at Fordham University, New York.Dr. Gang Zheng, University of Michigan-Shanghai Jiao Tong University Joint Institute Dr. Gang Zheng is the Associate Dean for Undergraduate Education of the UM-SJTU Joint Institute. He is also a faculty member in Electrical and Computer Engineering. He has been leading and/or participating in curriculum development, program assessment
a “non-literal similarity comparison” [18] that relies on figurativelanguage to interpret “a thing or action through an implied comparison with something else” [7].For example, the metaphor “the mind is a computer” establishes a figurative connection betweenthe human mind—a relatively abstract entity—and an electronic computer, which, althoughcomplex, is far less abstract than the brain. In this example, linguists would refer to “the mind”as the target of the metaphor, and the “computer” as the base [3]. Knowledge can be transferredfrom the base to better understand the target, a process sometimes referred to as mappingknowledge from one domain to another [7]. For instance, we might transfer certain attributes of acomputer—storing memory
Western InterstateCommission for Higher Education 9. This means that we cannot depend on an increased inputvalue to create the additionally needed number of engineering B.S. degrees. Considering onlycivil, mechanical, and electrical engineers, the U.S. Bureau of Labor Statistics OccupationalEmployment data projects a need of 20,000 additional jobs by 2010 10. The same sourceindicates we might need a similar or even larger increment for computer software and applicationsengineers. These increments are impossible to attain with the present set of system parameters.That problem is evidenced by the number of available H-1B visas in amounts of nearly 200,000,as indicated in Congressional Bill S.2045 (1988) and presently amended upward 11.It is
included a binary variable to indicate whether the student took the coursein sequence or waited until later in the curriculum. The study modeled Exams 1, 2, and 3individually. However, previous exam scores were used as predictor variables in later exammodels. For example, for the Exam 2 model, Exam 1 score was added as a predictor variable.The results showed that the online assessments did improve student exam performance comparedto the control semester. Also, college GPA and high school GPA were found to be veryimportant in predicting performance. The researchers also investigated the link betweenhomework procedures and student performance. They studied whether variables that representedstudent interaction with the online homework system might
Auckland in 1978, 1980 and 1984 respectively. He joined the Department of Electrical and Computer Engineering at the University of Auckland in 1984 where he is currently a Senior Lecturer. He is a member of the Department’s Radio Systems Group and his (disciplinary) research interests lie in the areas of radio systems, electromagnetics and bioelectromagnetics. Over the last 20 years he has taught at all levels and has developed a particular interest in curriculum and course design. He has received numerous teaching awards from his institution. In 2004 he was awarded a (National) Tertiary Teaching Excellence Award in the Sustained Excellence in Teaching category and in 2005 he received the
, commercial relevance36, experimental design37,industrial pracice38, and process dynamics39 and control40. Computers are more available leading to a “virtual unit operations laboratory” as a pre-lab resource41. However, materials and microelectronics are hardly visible, as we find singular mentionof polymer processing 42 and microelectronics43, despite heavy emphasis in research in theseareas. Photonic materials are notable by their absence. Expanding the universe of the undergraduate laboratory The present experiments were introduced in the last several years in order to bring agreater sense of modernity, and relevance to the only hands-on engineering experience in our128 credit hour undergraduate curriculum. The
. Dr. Kenneth A. Kroos Dr. Kenneth A. Kroos is an Associate Professor of Mechanical Engineering at Villanova University. He has a B.S., M.S., and PhD in Mechanical Engineering from the University of Toledo. He taught for five years at Christian Brothers College in Memphis, Tennessee, served as Student Section Advisor and Chair of the Memphis-Mid-south Section of ASME. Dr. Kroos joined Villanova University in 1982, teaching courses thermodynamics, fluid mechanics and several others. He serves as Assistant Department Chair for the Mechanical Engineering Department, has authored more than fifteen publications in the fields of fluid mechanics, heat transfer, engineering education and computer graphics for flow
Session 2461 Discovering the Power of PowerPoint: Rethinking the Design of Presentation Slides from a Skillful User’s Perspective Michael Alley Kathryn A. Neeley Engineering Education Dept. School of Engineering & Applied Science Virginia Tech University of VirginiaAbstract Slides projected as overheads or by computers have become a conventional and dominantfeature of engineering presentations in academia, business, and professional societies. Thetraditional
science education reform at the national, state and local levels, developingan understanding of how children learn science, identifying, researching and discussingcurrent trends and issues of curriculum and methodology in science education, planningand implementing inquiry-based science lessons/units, developing an understandingabout the development of children’s scientific literacy, and learning and utilizing varioustypes of assessment strategies in the science classroom.The Gizmo project is one way in which students demonstrate their competencies inrelation to the above goals. Specifically, the goal of the project is to connect the world ofscience to the world of science teaching. As a result, this project is completed incollaboration with
engineering and in computer science, Pat worked in computer chip design before changing careers to teach high school. He is currently a graduate student in STEM Education at The University of Texas at Austin and his research interests include measuring the educational benefits of middle school and high school robotics programs.Stephanie Baker Peacock, The University of Texas, Austin Stephanie received her BS and MS of Mathematics at branch campuses of The University of Texas and is pursuing her PhD in Science and Mathematics Education at The University of Texas at Austin. Her predominate research interest focuses on development of algebraic reasoning and symbolic understand- ing. Special attention is paid to students in
. Page 25.228.1 c American Society for Engineering Education, 2012 Assessment of Student Knowledge in an Introductory Thermodynamics CourseAbstractThe first course in thermodynamics builds the foundation for the thermal science courses in anundergraduate mechanical engineering curriculum. Students who master the fundamentalconcepts typically do well in the follow up thermal science courses. Therefore, assessment ofstudent knowledge in this course is essential for student success in the follow up courses.Assessment of student knowledge is usually achieved through homework assignments, one ortwo mid-semester exams, and a final examination. The difficulty is that only simple
expressing their own opinions, and have the full right to my besteffort as an instructor. The Impact of EESP at the High School Level Melody Ivory, Graduate Student Department of Computer Science, University of California at BerkeleyDuring the opening session of EESP, I learned that a disproportionate number of highly-qualified, undergraduate women and students of color switch from engineering to non-sciencedisciplines due to poor teaching by the faculty as well as poor student preparation and careercounseling at the high school level. I initially felt overwhelmed by this revelation, because itilluminated the enormous responsibility that faced me as a future faculty member. By the end
manufacturing education are pivoted on applied teaching, likeproject-based and competition-based learning and other applied hands-on teaching methods.Such methods have been proven effective; however, they exhibit limitations and challengesrelated to the cost of the equipment, lab space, regular maintenance, and other constraints relatedto securing a safe and friendly environment for students. In this context, we present theutilization of Mixed Reality (MR) technology as an immersive and engaging tool for teachingmanufacturing assembly processes. MR is the forthcoming evolution of the human-machineinterface in the real-virtual environment utilizing computers and wearables. The technology canbe a practical pedagogic tool for teaching students' assembly
engineering design, collaboration in engineering, decision making in engineering teams, and elementary engineering education.Dr. Adetoun Yeaman, Northeastern University Adetoun Yeaman is an Assistant Teaching Professor in the First Year Engineering Program at Northeastern University. Her research interests include empathy, design education, ethics education and community engagement in engineering. She currently teaches Cornerstone of Engineering, a first-year two-semester course series that integrates computer programming, computer aided design, ethics and the engineering design process within a project based learning environment. She was previously an engineering education postdoctoral fellow at Wake Forest University
radio or television • CD-ROM, in which the student interacts with computer content stored on a CD- ROM • PocketPC/Mobile Learning where the student accesses course content stored on a mobile device or through a wireless server • Integrated distance learning, the integration of live, in-group instruction or interaction with a distance learning curriculum • Online tutoringMost faculty who have listened to any discussion on distance education have heard thewords synchronous and asynchronous. Synchronous deals with students observing theclass in real time and asynchronous deals with students observing the class after it occurs,is processed, and posted for viewing.Synchronous technologies25 such as: • Web-based
and Computer Engineering: Computer Engineering (CpE) and Electrical Engineering (EE) Department of Computer Science: Computer Science (CS) School of Construction: Construction Engineering and Management (CEM) Department of Engineering Science and Mechanics: Engineering Science and Mechanics (ESM) Department of Industrial and Systems Engineering: Industrial and Systems Engineering (ISE) Materials Science and Engineering Department: Materials Science and Engineering (MSE) Mechanical Engineering Department: Mechanical Engineering (ME) Department of Mining and Minerals Engineering: Mining Engineering (MinE)All first-year engineering students are admitted as General Engineering (GE) students. GE is notan undergraduate
, PhD is Innovation Professor in Engineering Education in the School of Aerospace, Mechanical and Manufacturing Engineering at RMIT University. He is a civil engineer with 20 years involvement in leading change in engineering education, with a particular focus on problem/project-based learning (PBL), at RMIT, Monash and Melbourne Universities. Roger is an ALTC Discipline Scholar in Engineering and ICT, having co-developed the draft national academic standards for the discipline. He is currently Program Director for the Bachelor of Sustainable Systems Engineering and also works on curriculum issues across the College of Science, Engineering and Health at RMIT. He is a passionate advocate of national and international
Paper ID #41098Race to R1: An Analysis of Historically Black Colleges or Universities (HBCUs)Potential to Reach Research 1 Carnegie Classification® (R1) StatusDr. Trina L. Fletcher, Florida International University Dr. Trina Fletcher is an Assistant Professor of Engineering and Computing Education at Florida International University and the founder of m3i Journey, a start-up focused on research-based, personalized, holistic, innovative, relevant, and engaging (PHIRE) financial literacy education. She serves as the Director of the READi Lab (readilab.com) where her research portfolio consists of equity, access, and inclusion
Paper ID #48280Being and Becoming an Engineer: How Generative AI Shapes UndergraduateEngineering EducationDr. Clay Walker, University of Michigan Dr. Walker is a Lecturer III in the University of Michigan’s College of Engineering Technical Communication Program. He regularly teaches first-year, intermediate, and senior writing courses for students in all engineering disciplines, but especially Mechanical Engineering and Computer Science Engineering. His research focuses on the interplay between identity, experience, and agency in language and literacy practices, with a focus on style and the development of expertise in AI
“interventions that center predominately onequipping, changing, and fixing the student, rather than on doing the more challenging work ofassessing the ways institutions and departments are perpetrating racism and other “isms” inSTEM, which leaves these structures under- or unexplained” (p. 634). For example, summerbridge programs are commonly hosted by predominantly white institutions (PWIs) to “prepare”students for integration into the engineering curriculum, usually focusing on academic and socialimprovement, offering workshops like math tutoring sessions or interview panels with currentengineers [14], [15], [16]. In developing programs that focus on “fixing” the student to fit thecurrent and historical engineering culture, we foster problematic
overseen by a global nonprofit organization with a long historyof implementing projects in Iraq. This organization initiated a collaboration between a US-basedinstitution with highly ranked and respected engineering programs and one of Iraq’s topuniversities. The engineering colleges of both Universities set out to collaborate on meetinginternational quality standards, through faculty exchange and professional development,curriculum development, and joint projects. In this evidence-based research paper, we present both the details of the design of theprofessional development workshop as well as the findings of the ensuing research conducted bymembers of the partnering institutions and organizations. The sections are presented as follows
six years [4]. Explicitlyfocusing on engineering and STEM at the transfer juncture is essential because it expandsopportunities to recruit more diverse students into engineering careers, it explores engineeringarticulation and transfer barriers, and can inform curriculum and student service needs withinengineering transfer programs. Given that engineering students transfer differently and benefit from more pre-transferpreparation, focus on the engineering transfer process is vital[5]. However, existing researchdoes not provide an adequate understanding of how to increase engineering transfer success.Developing a better understanding of the application of the theory of transfer student capital inengineering transfer will increase
sustainability and describe its importance to civil engineering 5. explain the importance of professional licensure (PE) for civil engineersThe course also has additional aims: • Help students transition to college. The course includes announcements about tutoring, extracurricular activities, encourages students to attend career fairs, etc. Starting in 2020 (during COVID as required of a ‘CU101 course’) the course added explicit information on student mental health and resiliency. • Help students make an informed choice of major. • Help students become more interested and motivated toward CE, which may help them weather the decontextualized and sometimes difficult and frustrating courses in the early curriculum (e.g
harm exacted by biased technologies. We are hypothesizing, as has been expounded upon inthis work in progress paper, that building a more equitable future for medicine requires atransdisciplinary, multi-stakeholder design process where problems are addressed systematicallywith communities. Technology, in this design process, plays the role of uplifting the public’sinterests when it comes to their health, rather than solving all problems.We can imagine these principles becoming embedded within the engineering design curriculum,such as first year engineering design practicum or senior design practicum. For instance, ratherthan delivering engineers a project just in need of building, engineers could play a more activefacilitative role in the
University of Tennessee, Knoxville, from 1993 – 2005. Raman’s research has encompassed waste management, insect detection, and technoeconomic modelling of bioprocessing and waste-treatment systems. He has developed new graduate and undergraduate degree programs, overseen accreditation of highly-ranked engineering degree programs at ISU, and taught courses across the curriculum, from first-year engineering problem solving & computing, to capstone design. Over 220 students have participated in summer research programs (e.g., NSF REU sites) that he has directed, with two of these sites associated with large externally-funded interdisciplinary research efforts led by ISU. He has contributed to the literature in areas of