state to mandate the use of engineering in K-12 curricula. Morerecently, the NGSS (Next generation Science Standards) draft and Common Core standards also embracethe engineering-based pedagogy. Typically, the use of engineering in high school teaching centers aroundusing the engineering design process in the classroom. The authors have observed over a three-yearfunded research project that biology and chemistry are the hardest STEM subjects to implement theengineering approach, unlike other disciplines such as physics, math, and engineering subjects. Thispaper describes two case studies of two teachers, one teaches zoology and the other teaches biology. Thepaper outlines each case study, the teacher implementation, classroom results by students
slower pace in the USuniversities compared to the international counterparts 32, 33. In the US, it has been considered invarious forms and at different levels in engineering curricula. As examples, Mechatronics hasbeen proposed as a module at freshman level in an Introduction to Engineering course35, a seniorelective to ME/EE, a required course in EE/ME 26, 28, 30, a track/concentration option31, a separateprogram34 and also a graduate course or graduate degree option33. The course has been deliveredin different formats from traditional lecture and lab combination26, 37 to entirely project-based Page 23.417.2approach30, 39. The coverage of
theprogram with the undergraduate degree, offering a non-project option, managing theprogram through continuing education, collaborating with other departments, partneringwith industry, and accommodating students who did not graduate from the Cal PolyARCE undergraduate program. This paper offers a history of this masters program,describes these various issues, presents the current state of the program and makesrecommendations for its future.IntroductionThe Cal Poly Architectural Engineering Department’s masters program was launched infall 2007 due to student demand and ASCE policy 465’s declaration of the mastersdegree as the first professional degree for the practice of civil engineering at theprofessional level1. The mission of this master’s
agreement with theColorado School of Mines to provide leadership in programs and curriculum design, with the goalof achieving ABET accreditation for the Petroleum Institute.THE COLORADO SCHOOL OF MINES EPICS PROGRAMThe model for this experiment in trans-cultural engineering education is the Design EPICS(Engineering Practices Introductory Course Sequence) Program at the Colorado School of Mines.Directed by Dr. Robert D. Knecht for the past twelve years, the program is conceived to guideteams of first and second-year engineering students through an authentic design process that callson decision-making methodology to address technical, open-ended, client-based projects. Mentors(experienced teachers) guide the students through the creative, interactive
1. However, a perceived inability to assess creative attributes of students’ work has oftenprecluded creativity instruction in the classroom. The Consensual Assessment Technique (CAT)has shown promise in a variety of domains for its potential as a valid and reliable means ofcreativity assessment. Relying upon an operational definition of creativity and a group of ratersexperienced in a given domain, the CAT offers the field of engineering education an assessmentmethod that has demonstrated discriminant validity for dimensions of creativity as well as fortechnical strength and aesthetic appeal. This paper reports on a web-based adaptation of the CATfor rating student projects developed during a week-long engineering camp. High school
meet thischallenging goal. One effort to help reduce emissions includes a multi-disciplinary group ofengineers in the College of Engineering’s innovative Junior/Senior Clinic program2,3 who havecombined to site, design, permit, and install photovoltaic (PV) systems around campus. PVsystems are a clean, renewable energy resource that use energy from the sun and convert solarenergy to usable electricity. They have developed plans for installing these systems on roofsaround campus, as well as one system on the ground for educational purposes. Lucrativefinancial incentives from the State of New Jersey have made these systems economically feasiblefor the first time. To further reduce overall system costs, students working on the project, as wellas
professional responsibilities as student leaders and futurecommissioned officers. Participating agencies gain by having additional personnel to work onengineering projects, and by having the opportunity to expose future Army leaders to theimportant functions performed by their organization. Some AIAD opportunities extend beyondthe summer into the academic year as CAPSTONE projects. These projects continue to allow acadet the opportunity to discover the “real world” applicability of their academic endeavors.This paper explores the uniqueness and nature of our program, its purpose, our process formatching skills with a participating agency and follow-up feedback from cadets. This feedbackis used to assess the viability of the program for future students
been intricately woven into the undergraduate engineering curriculumand is a key component of the teaching-learning engineering environment. The objective is touse undergraduate research to teach engineering skills such as research methodology, design,development, manufacturability, testing, and implementation. These skills are necessary forsuccessful engineers to be proficient, regardless of specialization. Primarily, the success of ourresearch utilizing only undergraduate students has come from the project managementmethodology implemented to stimulate success both in the research endeavors and for thestudents who participate. The research process involves interdisciplinary undergraduate researchteams with a minimum of one-year student
AC 2011-2443: INCORPORATING ENTREPRENEURSHIP INTO MECHAN-ICAL ENGINEERING AUTOMOTIVE COURSES: TWO CASE STUDIESGregory W. Davis, Kettering University Dr. Gregory W. Davis is a Professor of Mechanical Engineering at Kettering University, formerly known as GMI Engineering & Management Institute. Acting in this capacity, he teaches courses in the Auto- motive and Thermal Science disciplines. He also serves a Director of the Advanced Engine Research Laboratory, where he conducts research in alternative fuels and engines. Currently, Greg serves as the faculty advisor for one of the largest Student Chapters of the Society of Automotive Engineers(SAE) and the Clean Snowmobile Challenge Project. Greg is also active on
Professor of engineering at John Brown University in northwest Arkansas. Prior to coming to John Brown University, he spent 10 years at Taylor University in central Indiana. Prior to that appointment, he received his Ph.D. from Washington State University in materials science and engineering. Holmes enjoys teaching a wide variety of classes and involving students at all levels of un- dergraduate study in team-based design projects and project-based learning. Contact: wholmes@jbu.edu.Dr. Kevin Hunter Macfarlan, John Brown University Kevin Hunter Macfarlan is a professor, Engineering Division. Page 25.1152.1
brainstorm during class. In a collaborative learning environment students and facultywork together to achieve the course learning objectives. In cooperative learning students workin teams on problems and projects that assure both positive interdependence and individualaccountability. Positive interdependence exists when students believe that they are linked withothers in a way that one cannot succeed unless the other members of the group succeed.Individual accountability requires the teacher ensure that the performance of each individualstudent is assessed and the results given back to the group and the individual2.At various stages of a student’s undergraduate career, she may experience group learning atdifferent levels. This paper explores three
prototyping equipment (e.g.Stratasys FDM technology) or use of a service bureau, custom blocks can also be included inthese prototypes. This introduces students to Design for Manufacture and Assembly concepts asthese custom blocks must be designed with appropriate wall thicknesses and stiffening, and withappropriate clearances and fits to assemble to standard blocks. The ability to do this adds to theappeal that LEGO® has for many students who are well familiar with their use. Experiencesfrom implementing a LEGO® based CAD project in a freshman course that teaches EngineeringDesign and Graphics will be used to underscore the benefits of using this approach.IntroductionCAD instruction is a required part of the curriculums of many engineering and
AC 2011-951: MODULAR CURRICULUM DEVELOPMENT FOR MECHA-TRONICS TECHNICIANSBranislav Rosul, College of Dupage Dr. Rosul completed his Bachelors of Science in Mechanical Engineering in February of 1984 majoring in Control Systems. Soon after he started to work as an Instrumentation Engineer in Teleoptic, Belgrade where he stayed for three years working on the Instrumentation Design and as a Project Engineer. During that time he worked on instrumentation and technology development of various industrial processes, from food to petrochemical and still industry. Academically, he continued on toward the Master of Science in Electrical Engineering at University of Belgrade. After completing his course work at the Belgrade
experiences and results in developing and delivering two coreElectrical and Computer Engineering (ECE) courses with laboratory components completelyonline using an internet based distance learning delivery system and the Mobile Studiotechnology and pedagogy. The challenge in offering ECE courses online is the fact they have avery intensive hands-on component, such as design and laboratory experiments, that requirestudents to use expensive laboratory equipment to complete and demonstrate their projects. Thisimplied that until now, institutions offering ECE laboratory courses had to have students attendthe laboratory courses on their campuses. Our ECE department is in the process of redesigningand delivering all 200-level and 300-level electrical
Session 1625 Integrating the Product Realization Process (PRP) Into the Design Curriculum Philip E. Doepker, P.E. University of DaytonAbstractFor nearly the decade, team projects have been implemented in design related projectcourses. Although many of these courses are “capstone” type courses, some may belaboratory project courses linked with more traditional design courses. Certain elementsremain common to team projects independent of the venue. The purpose of this paper isto outline the major items that are addressed as part of the implementation of projectsassociated
were power system analysis, refrigeration systems, psychrometrics,combustion, heat exchangers, and numerical heat conduction. Though this list of topics mayseem to be a hodgepodge, it is somewhat reflective of the eclectic nature of engineering.Through the use of a theme problem for the course, three computer mini-design projects wereconducted. The use of the theme problem provided continuity to the course and demonstratedthe engineering relationships of these eclectic topics.The theme problem chosen was the analysis of a land based gas turbine power system. The threemini-design projects assigned focused on power system analysis, heat exchanger design, andnumerical heat conduction. For the first project, students were provided with computer
Page 4.129.1momentum, architectural and engineering professionals must be prepared to treat their careers asdynamic entities that need continuous upkeep and upgrading.7 How then can faculty hope tostay abreast of current developments? Just as professionals must stop thinking of education aswhat they did in college many years ago, educators must stop thinking of industrial experienceas what they did with a company many years ago. Everyone must start seeing both academiceducation and employment experience as a project of life-long learning.Other studies have also shown that faculty with industrial experience spend a greater percentageof their time on teaching. Furthermore, studies have also shown that work experience positivelyaffects faculty
Page 5.154.1opportunities are ones that require students to demonstrate a wide variety of technical,organizational, and social skills in order to complete a significant project. Mock bidlettings provide such an opportunity for future construction professionals.Iowa State University’s Construction Engineering Curriculum has conducted three mockbid lettings in cooperation with the Iowa Department of Transportation and theAssociated General Contractors of Iowa. Students work in groups of three or four. IowaDOT provides contract documents for actual transportation construction projects andIowa State University provides classroom instruction on cost estimating. Then, with thehelp of industry mentors, students design the construction process and
Enterprise in the United StatesCurrently, large research-based engineering schools, such as the University of Illinois at Urbana-Champaign (UIUC), are trying to incorporate more project-based learning (PBL) intoengineering curricula. However, integrating PBL proves to be a challenge, especially in largelecture classes typically required for freshmen and sophomore engineers. Junior Enterprise (JE),a student-led non-profit consulting organization comprised of undergraduate and graduatestudents, provides a solution to this problem. Students work on projects together to provideservices to companies and institutions, enhancing students’ business and entrepreneurial skillsthrough practical application of classroom learning. In 2012, the first United
North Carolina State University. He was educated at the University of Illinois, receiving a BS in general engineering in 1980, an SM in civil engineering (empha- sis in construction engineering and project management) from MIT in 1982, and a PhD in civil engineer- ing (emphasis in construction engineering and project management) from the University of Texas-Austin in 1988. He has conducted research and has published in the areas of construction project success, ad- vanced information technologies, and multi-cultural workforce development. Dr. Jaselskis has served as a program director for the National Science Foundation. He is a registered professional engineer and has memberships in several organizations [American
-L, such asinstitutional support, faculty attitudes, and the intrinsic level of applicability of course material tocommunity issues.In the 2011-2012 academic year, 162 students in 9 courses in a College of Sciences participatedin S-L projects and were surveyed about their experience. These responses are compared tothose of 811 students in 33 courses from the College of Engineering, who completed the samesurvey; 93% of engineering students surveyed had done S-L that semester and/or previously.Compared to science majors, engineering students reported a significantly (5% level) strongerpositive effect of S-L on their persistence in their major, their interest in the subject matter of thecourse, their ability to plan and carry out a project for
practice schoolsetting convinced us that, while the lecture mode was "efficient," the experiential mode was more"effective." Moreover, the two teaching-learning modes were complementary. We also found thatinterfacing experiential programs with industry could be operated without adversely affectingquality of education. And, we learned a lot about selecting viable projects and about the details ofmanaging a non-traditional design program. Proceedings of the 2007 American Society for Engineering Education Pacific Southwest Annual Conference Copyright © 2007, American Society for Engineering EducationIn parallel with my experiences, my co-conspirator at HMC, Jack Alford, had spent a decade inindustry and a part of 1959-60 at
; Project management skills. Proceedings of the 2010 American Society for Engineering Education Zone IV Conference Copyright © 2010, American Society for Engineering Education 78III. Available programs to educate global engineersThere are at least eleven formats available in engineering programs that educate globalengineers2,19,20,21,22,23,24,25. 1. Dual degree: students obtain two degrees - one from the home university and one from the university abroad. Students follow an integrated program, which includes substantial study at the university abroad. 2. Student exchange: students from the home and
projects and student publications.Dr. David Michael Labyak, Michigan Technological University David Labyak is an Assistant Professor in the Manufacturing and Mechanical Engineering Technology Department at Michigan Technological University (Michigan Tech), teaching in the area of Solid Mechanics.Vinh Nguyen, Michigan Technological University Dr. Nguyen started his appointment as an Assistant Professor at Michigan Technological University in 2022, where his research focuses on advanced manufacturing through Industry 4.0, human-robot-machine interaction, and physics-based/data-driven modeling. Dr. Nguyen has developed solutions for a variety of production processes including machining, additive manufacturing, metal
chatbots can quickly provide students with support, allowing both students and teachers to get fastanswers to their questions and tasks. The use of Chatbots in education allows for efficient and quickcommunication[22, 23]. © American Society for Engineering Education, 2023 2023 ASEE Illinois-Indiana Section Conference Proceedings Despite the potential benefits of using AI-powered chatbots in education, there are also potential risksthat educators and students should be aware of. One concern is the possibility that students may rely tooheavily on chatbots for assistance with assignments and projects, leading to a decline in critical thinkingand problem-solving skills and a decline in the quality of education
Jing Guo, D.Eng., Keysight Technologies Kathy Kasley, Ph.D, Emeritus Professor, Pamela Phillips, Professor, Ce Yao, MSEE College of Engineering, Colorado Technical UniversityIntroductionThe key contribution for this paper is that two frameworks were used to apply systemengineering and further promote entrepreneurial-minded concepts for a capstone course at themaster’s level in electrical engineering. In addition, entrepreneurial-minded learning (EML)activities were implemented in several courses in electrical engineering and computerengineering based on the recent results in the undergraduate program. For this project,background and explanation of the frameworks are described in a capstone course for the
interests focus on early P-12 engineering education and identity development.Ms. Hoda Ehsan, Purdue University, West Lafayette Hoda is a Ph.D. student in the School of Engineering Education, Purdue. She received her B.S. in me- chanical engineering in Iran, and obtained her M.S. in Childhood Education and New York teaching certification from City College of New York (CUNY-CCNY). She is now a graduate research assistant on STEM+C project. Her research interests include designing informal setting for engineering learning, and promoting engineering thinking in differently abled students in informal and formal settings.Dr. Abeera P. Rehmat, Purdue University, West Lafayette A Post-doctoral Research Associate at Purdue
students to the concept of mass balances. This problem wasused to illustrate how to properly set-up and document engineering problems, design and usespreadsheets, and observe the effect of changing process variables on an overall design. Thestudents also learned technical writing skills by summarizing the project in a short report.Additionally, ENG1101 students were given a problem where they had to use unit conversions tosolve a Biomedical Engineering problem. In Fundamentals of Engineering II (ENG1102), anElectrical Engineering project introduced the students to control logic design. Starting with aconceptual 3- D model of the mechanical design, the project required the team to develop asystem configuration diagram, energy budget, functional
project-based learning and service-based pedagogies their potential impacts on student learning and how these impacts may be evaluated and assessed.Kurt Paterson, Michigan Technological University Kurt Paterson is on the environmental engineering faculty, where he currently serves as Director of Michi- gan Tech’s D80 Center (www.d80.mtu.edu), a consortium of 20 research, education, and service programs dedicated to creating appropriate solutions with the poorest 80% of humanity. His research, teaching and service interests focus on appropriate technology solutions that improve public health, international project-based service learning, and engineering education reform. Prof. Paterson teaches courses on cre
, University of Oklahoma (OU) during 1999 and 2000, and then at theDepartment of Civil and Environmental Engineering (CEE) at University of Cincinnati (UC)during 2001 to 2003. This Research Experiences for Undergraduates (REU) Site was funded bythe National Science Foundation (NSF). The purpose of this REU Site was to encourage talentedundergraduates to enroll in graduate school by exposing them to research, and to increase theirinterest in graduate research. In this paper, first the basic approach adopted to plan the REU Siteis presented, followed by a description of how it was administered each year. Then a detaileddescription of the projects executed in different years is presented. In the end the evaluationprocess used, and the outcomes from the