coastdown testing works well as aclassroom engineering laboratory.IntroductionThe education of mechanical engineering students tends to favor theoretical concepts overpractical applications. Students take multiple courses in topics such as dynamics, mechanics ofsolids and fluids, thermodynamics, and design theory. However, oftentimes the only exposuremechanical engineers receive to practical engineering comes in the form of a laboratory designcourse, in which they learn the operation of tools such as the mill and lathe. Few if any educationprograms exist that integrate theoretical and practical components of engineering. According toArnold Kerr and Byron Pipes, students gain more when engaging in hands-on work1.Consequently, because of this
understanding of professional and ethical responsibility g) an ability to communicate effectively h) the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context i) a recognition of the need for, and an ability to engage in life-long learning j) a knowledge of contemporary issues k) an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.The lists of competences, attributes and learning outcomes are based on much research and havebeen modified over time to ensure that engineering education develops along with industrialneeds and college learning outcomes are adjusted
that were more effective for students. • Achieving some career-life balance in their futures. • Communication strategies with faculty (and advisors on campus).When female students were being mentored by a female, the topic of low numbers of females inthe ECE program and engineering workforce came up, in some cases many times. In male ormixed teams', gender related issues did not seem to come up as a topic.A number of the students have gone to work in the research labs of their mentors which has ledto more interest in doing graduate research and being better positioned to obtain an internship ata national lab. In all cases, it was the students’ initiative, not a program requirement, to seekundergraduate research opportunities. ii
• Apply the engineering design process • Communicate effectively through written and oral presentations • Recognize ethical and professional responsibilities • Function effectively on a teamThe learning objectives align with the Accreditation Board for Engineering and Technology(ABET) Student Outcomes [21]. The week-by-week list of deliverables for the Health InequityDesign Challenge are posted in Table 1 below. Table -1 Health Inequity Design Challenge Deliverables Week Assignment Individual/team submission 1 Complete
context of current events and coursetopics. These initiatives include 1) a weekly teaching fellows program where faculty experimentwith inclusive practices and watch videos of their implementation and reflect on their success, 2)a weekly meeting with the faculty of engineering education as a whole where faculty regularlyshare the techniques that have been successful, and 3) a weekly reading group for students andfaculty discussing how race and inclusion can be better integrated in the classroom. Theseinitiatives established communities of practice [25] where faculty modeled what they were doingin the classroom to create a more inclusive classroom. This modelling allowed other faculty toidentify techniques that they might be able to use in their
). Changesin ethical awareness were not as strong (Figure 3) after the virtual activity. Although the onlineportion of the activity did not have a large impact on students’ ethical understandings, 50% didrecognize the ethical dilemmas present on the island. One student showed an emotionalconnection to his assigned role and the perceived unethical behavior, by stating that the“supervisor has an agenda by assisting a close friend to look good. A hook up. Product is flawedand research is flawed and are looking to use the good name of the inspection agency to promotea bad product.” Another student recognized the power struggle between supervisors andemployees in data collection. “Right off the bat, my supervisor informed me, that my report would make me
outcomes of an engineering education: “the ability to function on a multidisciplinary team” “the ability to communicate effectively” “an understanding of professional and ethical responsibility” “the broad education necessary to understand the impact of engineering solutions in aglobal and societal contest” “a recognition of the need for an ability to engage in life-long learning” “knowledge of contemporary issues” Page 7.778.1Proceedings of the 2002 American society for Engineering Education Annual Conference & Exposition Copyright 2002, American Society for Engineering
are simply information continuums yet are distinct and often not fluidin transition. Integration in the WKU mechanical engineering program also includes anexperimental component and a professional component. The courses described here relateprimarily to the integrated delivery of the materials engineering topics within the program.However, as a result of the integrated curriculum, the courses also contribute to the experimentaland communications aspects of the curriculum. Mechanical engineering students with diverse academic backgrounds are introduced tothe fundamentals of engineering materials in both lecture and laboratory settings as freshman.That lab experience is then complimented in the sophomore year in a lab connected to the
on the positive response to question 4, “Engineering is a prestigiousor elite career in Qatari society.” Cohen’s d effect size was d = .518 (p < .001), indicating adifference of approximately one-half standard deviation, a statistically significant difference.This is a good effect size to show the STEM program’s impact on students’ perceptions ofengineering prestige in Qatari society. Although the other effects were positive, none of themwere statistically significantly different on the posttest in comparison to the pretest.DiscussionThe data gleaned from surveys of student participants in STEM outreach programs has informedoverall strategy for connecting with the Qatar community and raising the university’s profileamong potential
1993.7. Project Impact: Disseminating Innovation in Under Graduate Education, Abstracts of Page 12.110.6Projects, National Science Foundation, 1994.8. Shuman, L.J., Besterfuekd-Sacre, M., McGourtly, J., “The ABET “Professional Skills” -Can They Be Taught? Can They Be Assessed? ASEE Journal of Engineering Education, v94, n 1, January 2005.9. Felder, R.M., Brent, R., “Understanding Student Differences,” ASEE Journal ofEngineering Education, v 94, n 1, January 2005.10. Smith, K.A., et al, “Pedagogies of Engagement: Classroom-Based Practices,” ASEEJournal of Engineering Education, v 94, n 1, January 2005.11. Bourne, J., Harris, D., Mayadas, F., “Online
substitute a related course in lieu of MET 475, MET 476 orMET 485 based on applicable experience.Many students in the MET program enter with education and training from a wide variety ofsources. Articulation agreements already exist with the Northrup-Grumman Newport NewsShipbuilding Apprentice program, the Virginia Community College system, Virginia DominionPower, and the US Navy Nuclear Power School. Many of the transferring students have someexperience in the Maritime industry and are prime candidates for this program. Additionally, theHampton Roads NROTC program (administered by Hampton University, Norfolk StateUniversity and Old Dominion University) is one of the largest NROTC units in the country. It isthe belief of the MET Advisory Committee
. Sci., vol. 26, no. 1–2, pp. 113–125, 1998.[30] A. Young and J. D. Fry, “Metacognitive awareness and academic achievement in college students.,” J. Scholarsh. Teach. Learn., vol. 8, no. 2, pp. 1–10, 2008.[31] S. Turan, Ö. Demirel, and İ. Sayek, “Metacognitive awareness and self-regulated learning skills of medical students in different medical curricula,” Med. Teach., vol. 31, no. 10, pp. e477–e483, 2009.[32] F. ur Rahman, N. B. Jumani, M. A. Chaudry, and F. Abbasi, “Impact of metacognitive awareness on performance of students in chemistry,” Contemp. Issues Educ. Res., pp. 39– 44, 2010.[33] É. Kállay, Learning strategies and metacognitive awareness as predictors of academic achievement in a
board certified coach with experience in developing students’ leadership and professional com- petencies through teaching and one-on-one coaching. She is most interested in developing student knowl- edge of leadership to impact their successful transition to the workplace. c American Society for Engineering Education, 2016 ‘Lion Leadership Lessons Video Series’ Delivering Engineering Leadership Fundamentals to a Broad AudienceAbstract Leadership skills are in ever-growing demand among companies who recruit engineeringgraduates. This need has been recognized in numerous studies and addressed in engineeringaccreditation standards1-9. Many universities struggle to find space
accreditationprocess shift from verification of input conditions to assessment of results represents sucha significant process change, national-level resources to ease the transition have beendeveloped. To date, documentation of the program actions following an engineeringtechnology accreditation review is minimal. Questions of sustainability, impact ofcurricular change on internal program assessment and evaluation, faculty motivation andworkload, and long-term effects on student success must be considered.This paper presents the TC2K follow-up approach taken by four engineering technologyprograms from one department at three campus locations. These programs encompassassociate and baccalaureate levels with one new and three ongoing accreditations
Copyright 2001, American Society for Engineering EducationIn addition, the program must have processes and measurement criteria to ensure that graduateshave a(n): ½ ½ Ability to apply knowledge of math, engineering, and science. ½ Ability to design and conduct experiments as well as to analyze and interpret data. ½ Ability to design system, component, or process to meet needs. ½ Ability to function on multi-disciplinary teams. ½ Ability to identify, formulate, and solve engineering problems. ½ Understanding of professional and ethical responsibility. ½ Ability to communicate effectively. Broad education necessary to understand the impact of engineering solutions in a global
; Rose, 2002). Even though we agreed to teach multimedia, I wanted to explore what kinds of activitieswere in the curriculum boxes. We took an extra field trip to the school to investigate them andfound they had been sitting untouched for several years in a closet. The boxes were organized inthemes of Engineering, Transportation, and Research and were targeted to teach a differenttechnological system (Transportation, Communication, Power and Energy, Engineering.) TheBYU students were surprised generally at the amount of information and activities packed intothese carts. They liked the fact that they could be moved from one classroom to the next andliked the structure of the lessons around themes. The students also liked the fact that
-Hee Kim is Professor of Curriculum Studies and Teacher Education in the Department of Curricu- lum and Instruction at Texas Tech University. Kim is a curriculum theorist, teacher educator, and narra- tive inquiry methodologist. Her research centers on various epistemological underpinnings of curriculum studies, particularly engaging in hermeneutical excavation of the stories of students and teachers around the notion of Bildung, a human way of developing or cultivating one’s capacity. She received the Fac- ulty Outstanding Researcher Award in 2018 from Texas Tech University, and the Outstanding Publication Award from the American Education Research Association in 2017 for her book, Understanding Narra- tive Inquiry
often considered the most critical factors influencing students' decision to study engineering. In many engineering programs, students need to start their undergraduate education in Calculus 1 to be on track in the major. In 2023, student readiness is significantly different because the COVID-19 pandemic significantly impacted math and science achievement. More incoming engineering students than ever placed below Calculus 1 and are navigating the impact this has on their engineering major and coursework trajectory. Even with the added barrier of being categorized as pre-math-ready or beginning in Pre-Calculus in their first semester, students continue to pursue engineering. What
range ofingredients used and their impacts on the brewing processes.Experiential Learning Through Brewing BeerThe fermentation laboratory exercise is an experiential learning opportunity that allows studentsto demonstrate their knowledge of this critical process in a practical application. Hands-on,active learning environments strengthen one’s ability to learn fundamental principles leading tolifelong understanding (see Figure 5). [14] discusses three significant impacts that laboratoryexperiences have on undergraduate students – student engagement, positive impacts on industry,and personal and professional growth in their discipline.While traditional classroom lecture andpresentation are valid methods to introduce theprinciples of fermentation
Security Analysis, will covermore advanced topics that require either additional knowledge or a stronger commitmentto the topic. In other words, students will face less engaging required topics, like nationalsecurity standards and policies, as well as more engaging activities like an informationwarfare exercise.Here is how the required courses fulfill the IACEP requirements. Instruction 4011Section 14 lists seven curriculum areas, and they are fulfilled by one or more of fourrequired courses: the security courses (Sec 1 and Sec 2), operating systems (OS), ornetworking (Net). • Data communications – Sec 1, Net • Computing basics: hardware, software, firmware – Sec 1, OS • Security overview and model – Sec 1 • National
professional expectations of engineering as a career and discipline [9], [10]. Someprograms also use these courses to foster engineering ethics, writing and communication skills,teamwork competencies, and to develop community and engineering identity within students toaid in retention of engineering students [11], [12]. In other words, first-year engineering designstudents are typically gaining other competencies beside academic objectives (the what part ofengineering) in addition to learning how competencies are enacted within the engineeringdiscipline.While all engineering programs may structure their first year and design experiences differently[11], engineering education and design literature concurs that the emphasis on authentic andexperiential
process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability d) an ability to function on multidisciplinary teams e) an ability to identify, formulate, and solve engineering problems f) an understanding of professional and ethical responsibility g) an ability to communicate effectively h) the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context i) a recognition of the need for, and an ability to engage in life-long learning j) a knowledge of contemporary issues k) an
knows it must attract, grow, advance, andretain the world’s best technical professionals. This is where IBM Pathways comes into thepicture.© Copyright IBM 1IBM Pathway Program – ASEE CoNECD 2023Here’s what we’d like to share with you today: - What exactly is IBM Pathways and its mission? Who is the audience? What are the program components? How does it all work? - Why and when was Pathways developed? How has it evolved and changed to remain effective? - What has been the impact of Pathways for the students (we call them participants)? - And, time permitting, we’d love to engage you in experiencing one of our post- Pandemic activities that
courses of action. d) Demonstrate effective time management skills.The FrameworkIn order to truly integrate these important Workforce Skills, and have a meaningful impact on thereadiness of our students, is was necessary to change what and how we teach. Prior to this effort,emphasis in the major courses was on technical content. Mathematics, communication, andother traditional liberal arts subjects were mostly left to the courses in those departments. It wasapparent that merely imposing the skills framework over our existing approach would not be Page 23.776.4effective. It was fairly easy to identify alignment of the program curriculum
engineering problems• understand professional & ethical responsibility• communicate effectivelyThe broad education necessary to• understand the impact of engineering solutions in a global and societal context• a recognition of the need for, and an ability to engage in life-long learning• a knowledge of contemporary issuesAbility to use the techniques, skills, and modern tools necessary for engineering practice.In this paper, how each of these issues fits into a technology-based approach towards engineeringcurriculum is examined. The paper begins with a discussion of the research literature on howengineering students learn and how courses need to be altered in the teaching/learning process. Itthen goes on to discuss how technology is being used in
projects. Students worktogether with mentors to learn and apply engineering tools and methods that are applicable tothe project. The rest of the staff is comprised of the following support: engineering, reportingand writing, communication and events, and a clinician. The ‘clinician-in- residence’ position was developed as a resource for students and staffworking on projects requiring advanced clinical knowledge. The clinician also bringsknowledge of culture, operations, and finance to project development and implementation, inaddition to teaching the engineers the basics of disease, diagnosis, and treatment relevant toeach project. For example, in certain scenarios, it may be important to understand hospitalculture when proposing or
out in this paper. A science fiction literatureclass is a superb opportunity for building student and instructor critical thinking skills, increasingtechnological literacy, and meeting key academic goals for colleges and universities nationwide.Bibliography 1. Gunn, J. E. Teaching science fiction. Science-Fiction Studies 23, no. 3 (November 1996): 377-384. 2. Lips, H. M. Using science fiction to teach the psychology of sex and gender. Teaching of Psychology 17, no. 3 (1990): 197-8. 3. Marchesani, J. J. Constellation prizes: Using science fiction for lesbian, gay, and bisexual issues in college classes. Paper presented at 45th annual Conference on College Composition and Communication, Nashville, March, 1994
projects. This allows theinstructor to focus on the design process, methodology, project management, communications,economics and ethics, without the concern about progress on the actual capstone projects.Clearly, more time can be spent covering steps in the design process and analytical tools in orderto assist with appropriate design decisions. The instruction can be more directly applied to theconceptual design projects. Students get experience with intense project teamwork, without thepressure of performing for an external client. Moreover, students can practice what they arelearning on two different projects with two dissimilar teams. This facilitates different levels ofpeer interaction, often found to be the driving factor in the difference
technology and in computer science. Aftertwo years, the effort was expanded to the local community college, where it has grownevery summer for three years thus far.B. High School ExperiencesIn the first four years of the Advanced Placement (AP) Computer Science program atChesapeake High School in Pasadena, Maryland there were a total of five female studentscompared to sixty males. During the same period of time, the school’s Academy ofInformation Technology [4] enrolled ten girls and one hundred boys. Girls comprisedroughly ten percent of the total students enrolled in the only information technologyspecific programs in the school. The exact numbers varied from year to year with nodetectable trend.A targeted effort was made to improve this situation
had nonumerical impact on the students‟ final grades. Instead, it was used to provide feedback forimproved student learning in anticipation of the grade-determining summative final exam to betaken at the end of the semester.The seventh learning outcome, associated with preparation and participation, was assessedcontinuously via readiness tests, daily instructor observation, and a peer assessment survey givenat approximately mid-semester. In the peer assessment the members of each group anonymouslyassessed each other‟s contributions to the group work process.Evaluation: Fall 2010Evaluation of the adapted TBL strategy as implemented in Fall 2010 was done using twoinstruments: continuous observation by the instructor throughout the semester, and