, 2000.[30] A. Ruocco, and M. R. S. Dixon, “A multidisciplinary capstone teaching model-an integrated, multilevel, intradisciplinary engineering design approach”, 1997 Frontiers in Education Conf., pp. 1011–1014, 1997.[31] J. C. Marques, “Inter and multidisciplinary in engineering education”, International Journal of Mechanics and Materials in Design, vol. 4, no. 2, pp. 229-237, 2008.[32] S. R. Brunhaver, J. M. Bekki, A. R. Carberry, J. S. London, A. F. McKenna, “Development of the Engineering Student Entrepreneurial Mindset Assessment (ESEMA)”, Advances in Engineering Education, vol. 7, no. 1, 2018.[33] J. Bekki, S. Brunhaver, A. Carberry, J. London and A. McKenna, The engineering student
Paper ID #40866The Eclectic Reader for Introduction to EngineeringDr. Timothy A Wood, The Citadel Timothy A Wood is an Associate Professor of Civil and Environmental Engineering at The Citadel. He acquired a Bachelor’s in Engineering Physics Summa Cum Laude with Honors followed by Civil Engi- neering Master’s and Doctoral degrees from Texas Tech University. His technical research focuses on structural evaluation of buried bridges and culverts. He encourages students through an infectious enthu- siasm for engineering mechanics and self-directed, lifelong learning. He aims to recover the benefits of the classical model
book Constructing Complexity, William Mitchellreferenced to shift to digital design in architecture stating that “buildings were once materializeddrawings, but now, increasingly, they are materialized digital information – design with the helpof computer-aided design systems, fabricated by means of digitally controlled machinery, puttogether on-site with the assistance of digital layout and positioning devices, and generallyinseparable from flows of information through global computer networks.”[2]However, design exploration is an integral aspect of the design process in any discipline.Traditionally sketching has functioned as a primary conceptual design tool due to itsindeterminacy and ambiguity. Goel [3] suggested that the ambiguity in
of engineering and technology. Most (95%) were from the USA(5 from Canada, 3 from China, 1 each from various other countries). Table 1 provides asummary of survey participants by program type, Table 2 provides a summary of participants byyear in program, and Table 3 provides an overview of ethnicity for survey participants.Table 1 – Survey participants by program type Program Frequency Percent Mechanical 131 31.3 Chemical 70 16.7 Civil and Environmental 65 15.6 Electrical 60 14.4 Manufacturing 22 5.3 Computer
and integrationof these devices, but also to gain an appreciation of the strengths and difficulties of using thetechnologies of the other discipline. Both sets of students are required to have completed acourse in structured computer language. The electrical students are required to have finishedtheir first course in both “digital circuits” and “circuits and networks”. The mechanical studentsare required to have completed a course, “fundamentals of electrical engineering”. Thefundamentals of EE course introduced the mechanical students to DC and AC circuits, digitallogic, and some electronics. Page 9.465.3 Proceedings of the 2004
AC 2008-2792: DEVELOPING ENGINEERING EDUCATION IN THE MIDDLEEAST USING THE NORTH AMERICAN MODEL – WHAT ASSUMPTIONS AREVALID?Raymond Thompson, DAE University Raymond E. Thompson is Dean of Aero & Astro Sciences at DAE University, Dubai, United Arab Emirates. raymond.thompson@daeu.ac.ae Page 13.395.1© American Society for Engineering Education, 2008 Developing Engineering Education in the Middle East Using the North American Model – What Assumptions Are Valid?AbstractThe development of aerospace and mechanical engineering programs at a new university in theUnited Arab Emirates is a challenging task. A new private
degree panoramas of facilities so that they can interrogate them andeven participate in digital, virtual 3D factory tours ([8] and [11], and [12] to [14]).In terms of challenging to learn and investigate the illustrated case further we give severaldirect URL (web) contacts, e-mail addresses so that the learner can get in touch with keycontacts and start to collaborate. We focus our questions and address excitingengineering, management, and computing science / IT (Information Technology) issues.This approach helps distance learners as well as educators to work with the material in real-world classroom and/or virtually web-networked teams.Our cases are object-oriented and self-contained; nevertheless, they can be integrated orgrouped into
consists of a smallassembly that students create as a solid model and then document with a collection ofengineering drawings. Each of the twelve lectures has an associated laboratory sessionwhere students work problems based on the lecture material. The laboratory sessions aretwo hours long. As EG&CAD is a one credit course, no additional work is assignedoutside the laboratory; the goal of the lecture and laboratory is to contain the course tothree hours each week.Course Implementation 1EG&CAD is taught using laptop computers. All freshmen at Rensselaer ar e required tohave laptop computers. Students may purchase laptop computers from Rensselaer; thesecomputers have all of the necessary software loaded on their hard drive. The
thinking, making and design innovation project courses. Dr. Lande researches how technical and non-technical people learn and apply design thinking and mak- ing 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 Stan- ford University. Dr. Lande is the PI on the NSF-funded projectShould Makers Be the Engineers of the Future? He is a co- PI on the NSF-funded projects:Might Young Makers Be the Engineers of the Future?,I-Corps for Learn- ing:Leveraging Maker Pathways to Scale Steam
improving the retention of under-performingstudents, but these tools are too labor-intensive for faculty to apply in large introductory courses.Additionally, many struggling students are limited by non-cognitive factors such as fear offailure, social anxiety, and general overwhelm. There is a need for large-format, scalableinstructional tools that both engage students in course material and address non-cognitive factorsin an appropriate way.This Work In Progress will present the effects of a remedial intervention, the “reflectiveknowledge inventory”, at improving student outcomes in Calculus 1. In the intervention, studentsimprove their exam score by submitting a “reflective knowledge inventory”. Expert learnersknow that new skills are best built
student earning her Master’s in Engineering Technology degree from Purdue University, West Lafayette Indiana. She received her Bachelor of Science degree from Purdue University and majored in Mechanical Engineering Technology. During her undergraduate she was an un- dergraduate research assistant studying renewable energy with an emphasis on solar energy for residential and utility use. Current research as a Master’s student is in curriculum development for engineering tech- nology programs, notably at Purdue University. Her thesis is on conducting an engineering and financial analysis for a local wastewater plant facility.Therese M. Azevedo Therese Azevedo is a third year student at Sonoma State University pursuing a
DataStructures and Algorithms (DSA) course at a large public university in the United States. We reporton a qualitative analysis of 199 students’ open-ended responses regarding students’ choices. Ourcontributions from this paper are as follows: (1) rich descriptions of workflows for assessing andproviding students feedback when solving short programming problems using cloud-based ornative approaches and (2) student preferences and challenges when solving short programmingproblems using different mechanisms. These findings have design implications for computingeducators, system designers, and other stakeholders involved with the selection of cloud-based ornative programming workflows who want to accommodate eclectic learner needs and promotestudent
freshman year, thenthe design serves the dual purpose of integrating the math and science into the engineering curriculum.Engineering design rarely focuses on one discipline, but is rather a combination of mechanical, electrical,industrial, etc. engineering. A key fictor when introducing design at the freshman level is to include theserealistic situations and illustrate the inter-disciplinary nature of design from the beginning. Additionally, theformat of design must be considered from both instructor presentation and student deliverables. Oral, graphicaland written communication are important in conveying design; therefore, instruction in all areas should beincluded in the course. While having a design described entirely on paper is possible
-publicized, and affordable teachingopportunity to the engineering community and also highlights a formal course for undergraduatesas a mechanism for enabling student achievement. Virgin Galactic certainly excels at advertisingtheir upcoming flight service but there are a handful of other companies also seeking to enter themarket. Most of these other companies have not pursued publicity to such an extent during thevehicle development years. Thus most of the companies and flight vehicles which will soon beavailable, and the one already available, are largely unknown within the engineering educationand even within the specialty of aerospace engineering. To highlight the educational nature ofthese emerging flight services, this paper reports on the
with the Air Force, he moved to the auto industry, spending 3 years with Lear and 6 years with Bosch. He came to Purdue in 2004 where he is now a professor in the School of Engineering Technology. He works on musical instrument design and structural mechanics. Over the years, he’s published the usual collection of articles and conference papers along with two books. c American Society for Engineering Education, 2017 Examining ET Students: How they perceive and order their thoughtsThe lack of rigorous research focused on engineering technology students leaves administratorsand practitioners in this area without adequate resources to advise and guide this uniquepopulation. This absence of research
, manufactured byVisbox, Inc. (www.visbox.com). It consists of an 8’x6’ screen with dual projected images whichare filtered so as to present a different image to each eye. In addition, the system includes atracked user-interface device (a “wand”) which allows the user to interact with the programs insix degrees-of-freedom. Finally, the user wears tracked glasses which allow the display tocustomize the image to the viewpoint of the user.Chemical Visualization A mechanical engineering course in materials science taught at our university involvesstudying unit cells of crystalline material. To support this course, we developed an application toshow these structures at the atomic level. A representative screen shot from application is shownin Figure 1
BasicProgramming is the only course prerequisite to CMST 222. The students in this class come froma variety of majors including Mechanical Engineering Technology, Electronic EngineeringTechnology, and Computer Engineering Technology. Consequently, the class is made up of adiversity of backgrounds, abilities, and technical interests.The course is a three credit hour course that meets three days a week in a lecture setting. Thestudents do homework and laboratory assignments on their own time. The course works on atraditional scheme of introducing students to top-down program design. The first half of thesemester is devoted to understanding constructs, creating flowcharts, and developing algorithms.During the second half of the semester, the class was
aspects ofunmanned systems are not or cannot usually be taught in classroom settings. Students and/orresearch projects are effective ways of exposing students to the state-of-the-art in unmannedvehicles technologies. Moreover, multidisciplinary projects provide students opportunities tolearn real-world problems in a team environment. The projects include many aspects ofunmanned vehicles technologies such as Sense & Avoid, Computer Vision, Path Planning,Autonomous Routing and Dynamic Rerouting, Geolocation Techniques, et cetera, and involvemore than 90 students from Aerospace, Electrical & Computer, Mechanical, and IndustrialEngineering, and Computer Science Departments. The projects have been found to effectivelyengage students in
and teaching resources to include sustainability-focusedcompetencies. A summary of outcomes from the workshop [22] and recommendations for thefuture were published as a ASEE conference paper in 2023 [23] and as a summary report byVentureWell in 2024 [24].2022 - EOP Framework RevisionIn 2022, EOP used three stakeholder feedback mechanisms to revise the EOP Framework. 1. An external evaluator gathered confidential feedback from EOP Pilot Grantees via one-on-one interviews to understand what was working with the EOP Framework, what could be improved, etc. [25], 2. As part of the NSF-funded EOP Scaling for Impact Workshop in 2022, 101 experts from across sectors working in the area of sustainability and/or engineering
DEI due to the ability to cover systems ranging from purely mechanical andbiological to ones which include more human elements such as social and political. Systems suchas the latter were introduced into the undergraduate Industrial and Systems Engineering (ISE)curriculum to assess how DEI can be captured in the curriculum. The results obtained can beused to help shape a framework for immersion of DEI into the ISE curriculum.Two pilot studies were performed as a work in process; the first was a recent senior projectwhich designed qualitative and quantitative system models of homelessness in Philadelphia forthe purposes of policy making and the second was a semester long course in systems thinkingand dynamics. They were used as a means of
community, assess the strengths andinterests of your students and the faculty interested in participation. In our case, GrandValley had a number of engineering students who were serious cyclists. They providedthe expertise that we needed to begin fixing bikes and they provided contacts to a localbicycle shop that now provides materials at a discount and provides additional expertise.We also have a number of students who need exposure to the use of hand tools.Changing tires is a wonderful way to start in this program, and most bicycle repairs arequite easy to learn. Even students who have never worked on a bike and know littleabout hand tools can come and learn from their peers in a very non-threateningenvironment. The same students are able to gain
- taminant transport, phytoremediation, ecological restoration and mathematical modeling of environmental systems. He specializes in providing access to undergraduate education in engineering and sciences to underrepresented minorities.Dr. Edison Perdomo, Central State University Dr. Edison Perdomo is an Associate Professor of Psychology at Central State University. His interest include the role of psychological function in the regulation of physiological mechanisms such as cardio- vascular and thermoregulations. Additionally, he is interested in cross-cultural differences in learning and communication styles and in studying how psycho-social differences can affect the rate of seeking medi- cal attention and compliance as
Session 1526 ReactorLab.net Laboratory Simulations Richard K. Herz Chemical Engineering Program & Mechanical and Aerospace Engineering Department University of California, San Diego, USA 92093-0411AbstractReactorLab.net provides simulations of a variety of chemical reactors for use in chemistry andchemical engineering education. The overall software framework is field-independent; onlyindividual lab modules are field-specific. The software framework is that of a "rich client" or"Internet application," with full
quantitatively and communicating with other specialists.• Several of them speak English as a second (or third or fourth) language and aresometimes not sure of their command of the conventions of North American English.• Many of them were taught that the important matters in communication are styleand mechanics; they do not perceive themselves to be expert in those matters.These factors may give technical faculty members the impression that they are not Page 8.237.4qualified to assess students’ communication abilities. However, careful attention toProceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition
secondary approach was to create andimplement surveys that indirectly assess the industry’s participation. Both of these methodsprovided meaningful feedback for the students’ performance and ultimately for programmaticstudent outcomes.IntroductionThe benefit of involving industry members in engineering education has been well documentedover the past several decades. Specifically, contemporary academic literature supports the use ofindustry sponsorship of senior design projects, also known as “capstone” projects (Smith, 2009).Industry sponsorship can take many forms, but most of the time this primarily entails industrymembers working with and/or reviewing the work of the students (O’Brien et.al., 2003). Thisprovides an outstanding mechanism for
) audience.Previous WorkPrevious efforts to apply VR to engineering education have produced three major and six minormodules on three different computer platforms, for a total of 27 different versions8-17. All of theminor modules and one of the major modules are currently available for free download from theworld wide web, and the remaining modules will be ready soon18 . All modules support but donot require special VR equipment, such as head-mounted display systems, the FakespaceBOOM, or a CAVE.The most significant major module, Vicher1, illustrates mechanisms of heterogeneous catalyticreactions, and industrial responses to three different types of catalyst decay. Vicher1 includesthree reaction engineering areas where students can operate and explore
Gummadi, and Maveeth Nallapeta., “Game mechanics and social networking for co-production of course materials,” Frontiers in Education 2009, paper 2009-1426. 2. Edward F. Gehringer, Abhishek Gummadi, Reejesh Kadanjoth, and Yvonne Marie Andrés, “Motivating effective peer review with extra credit and leaderboards,” ASEE Annual Conference and Exposition, American Society for Engineering Education, Louisville, KY, June 20–23, 2010, paper #2010-1154. 3. Edward Gehringer, Ferry Pramudianto, Abhinav Medhekar, Chandrasekar Rajasekar, and Zhongcan Xiao, "Applications of Artificial Intelligence in Peer Assessment," 2018 ASEE Annual Conference and Exposition, Salt Lake City, June 25, 2018. 4. Sudipto Biswas, Edward F. Gehringer
about negative effects associated withchanges in the mechanics of a course often become self-fulfilling prophecies.Publications we selected as relevant addressed student impressions based on their userexperiences with AATs. In these papers, students were asked questions about the tools’ overallperceived helpfulness, ease of use, and fairness. Related questions addressed how well thestudents liked using the tool and whether the inclusion of an AAT in a future course would makethe student more likely to take that course. Positive survey responses to these questions wouldindicate that AATs are “helpful” in contributing to positive student impressions and attitudes.3.3 Instructor impressions and satisfaction with AATsResearch question 3 was: After
Law for material elasticity) to explain laboratory findings ● Studying structural models and relating them to real-world observations, such as deflection behavior under different loading conditions ● Formulating hypotheses or theoretical explanations for unexpected experimental resultsBy understanding the underlying mechanics and models, learners can transfer their knowledge tonew and unfamiliar situations, which is essential for success in the dynamic field of engineering.4. Active Experimentation (Doing): This stage is characterized by the application of newlydeveloped concepts in real-world situations. Learners experiment with their ideas and solutions,testing their hypotheses in a practical environment to see how they work
Paper ID #24944A Program to Prepare Engineering Students to Obtain High-Quality Employ-mentDr. Gregory Scott Duncan, Valparaiso University G. Scott Duncan is an Associate Professor of Mechanical Engineering at Valparaiso University. He re- ceived a BSME (1990) from Purdue University and Ph.D (2006) in Mechanical Engineering from the University of Florida. His research has focused on machine tool dynamics and the development of sys- tems and components for the area of concentrated solar thermal chemistry.Dr. Jeffrey Will, Valparaiso University Will completed his B.S.E.E., M.S.E.E., and Ph.D. degrees from the University