NeedsAbstractAs institutions of higher education strive to maintain effective and affordable educationalpathways, innovative partnerships between associate and baccalaureate degree grantinginstitutions can facilitate a student’s progress while maintaining close alignment with industryneeds. This paper details the continuing efforts of a multi-year project between a two-yearcollege, a university and industry that has resulted in the creation of well-aligned associate andbaccalaureate degrees in mechanical engineering technology. These offerings represent newdegrees for both institutions, as well as an entirely new department of engineering technology forthe university that complements its already existing engineering programs. Both degrees arebased on a
providing cost-effective online education and training inscience and engineering using the latest advances in technology and a project-based and systemsapproach. Currently, it offers certificates in mechatronics and mathematical modeling [1]. Onlineeducation is known to offer many advantages, and has grown considerably in the last fewdecades. One area of great potential for growth is in science and engineering. It is an area stillsubject to a subtle but not significant barrier to market entry [4].The role of API in the partnership included the design and delivery of suitable online curriculathat satisfy the needs of ENC, including:• electromechanical/mechatronics engineering• mechanical engineering• biomedical engineeringAccording to the Bureau of
understanding, better retention of concepts, increasedinterest on the subject matter among the students, and stronger problem solving skills. Severalapproaches have been practiced by educators to ensure meaningful participation of students inlearning including problem-based learning1, “learning by doing”2, and “project-orientededucation”3 to name a few. All these approaches emphasize a “learner-centered approach” and amove from a “content-based” to a more “context-based” education4.In addition to sharpening student’s laboratory skills, most undergraduate lab-based courses areused to promote some type of hands-on learning. In conventional laboratory course students areprovided with detailed instructions on how to perform the work and, in many cases, how
students thoroughly digest the material at hand and create newmeans of presenting the subject matter and then to act as teachers in a classroom setting withchildren. We also found motivation from the study of Elton et al.2 who sought to demonstrate“some interesting and mysterious, but explainable experiments” to a K-12 audience. The keymotivator here was the term “explainable,” we really did not want anything to come across asrandom or inexplicable. The overall structure of our research project, and its credence as asenior capstone project focused on research questions that were similar to Moskal et al.3, namely“how are children impacted by an outreach program”?, and “how are the college students andfaculty impacted by the outreach program”?. We
AC 2007-2315: DEVELOPMENT OF AN INNOVATIVE STRUCTURAL TESTINGLABORATORY TO ENHANCE EXPERIENTIAL LEARNINGManar Shami, University of the Pacific Manar Shami, Ph.D., PMP., is a Faculty at the School of Engineering and Computer Science, University of the Pacific, Stockton, California. Professor Shami received M.Sc., M.Eng., and Ph.D. degrees in Civil Engineering from the University of California, Berkeley. He did extensive research and consulting in project management in the U.S. and internationally. He was a Faculty at the University of Cincinnati. He was also a senior aviation engineer with ATAC Corporation in Sunnyvale, California working on NASA and DOD projects. He provided executive project
. The RP/RM education at RMUis very effective, enhancing a healthy combination of theory and practice. A successfulstudent completing the ENGR 4801/5810 course gains invaluable information on thesetechnologies, and is able to operate all related hardware and software tools that include SLAtechnology, Reverse Engineering tools, and CNC technology. This knowledge and skill set isthen applied in his/her CARES Research or Engineering Projects or Integrated EngineeringDesign assignment (Capstone Course Project). Being competent in these areas make thestudent employable by CARES during his/her education and by the local industry. Students’response and feedback on these courses show their satisfaction in the learning process. It isnot uncommon to see
objectives, and outcome definition Advice faculty and students of professional skills expected of graduates Provide the recognition of the faculty, students, and alumni Raise public awareness of the College Raise funds for endowed positions, scholarships and fellowships Provide resources to meet industry’ needs Provide logistical support to collaborators Encourage talented engineers from local industry who is willing to work with students to become part-time adjunct faculty [6]. Enhance partnerships between faculty members and selected people from industry through senior capstone projects and research projects in selected areas [6
parties. The web site address is http://blue.utb.edu/bceil.It is also important to notice that another methodology in integrating BCEIL into theCS/CIS curriculum has been through senior projects. Senior projects have beenintroduced into the degree plan three years ago and have been a great factor in integrating Page 10.800.4knowledge from many different courses into a capstone project. BCEIL has givenstudents a great deal of freedom in choosing realistic projects that accentuate their “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright ©2005
, tooling, and robotics).Although this technology has been advancing swiftly in teaching, training, and learning,it is still in its infancy. Since this vital technology is very important for the progression ofthe manufacturing industry, an NSF grant has been awarded for the RP Education (DUEAward Number 0302314: Technician Education in RP and Virtual ManufacturingTechnologies). Project team members organized a workshop on Training the RP trainersat San Diego City College from July 27 to August 1, 2003. Tennessee Tech University(TTU) faculty and assistants attended this workshop because TTU was in the process ofbuilding a RP Lab and organizing workshops for high school students/instructors. Thispaper intends to report learning practices, adaptations
Session 1692 The Mechatronics Road Show: Building on Success in Mechatronics Curriculum Development Sandra A. Yost, Daniel D. Maggio Dept. of Electrical and Computer Engineering/ College of Engineering and Science University of Detroit Mercy, Detroit, MichiganAbstract:This paper describes a progression of successful pre-college programs that have grown from acomprehensive mechatronics curriculum development project sponsored by the National ScienceFoundation’s Course, Curriculum and Laboratory Improvement (CCLI
example,the flume required a controllable dye injection system. The wind tunnel is an open circuit tunnel Figure 5: String in Turbulence. A timed exposure reveals the motion of three 1.5 mm diameter strings in the turbulent flow generated by a box fan. Brianne Hovey, Jason Campbell, Nate Lee, Derek Paul, Kate Schwerin.in a large laboratory, precluding the use of smoke visualization. Development of visualizationhardware for some of these facilities was found to be outside the scope of the course asstructured, with the present emphasis on the creation of images. In the future, these facilities willbe developed as student projects via independent study, capstone design projects and paidassistantships. Students were more successful
, equipment, ortechnical assistance as well as soliciting the company for projects suitable for capstone designclasses.Advantages to the host companyThe host company effectively hires a faculty member with strong credentials and analytical skillson a temporary basis for a nominal cost. The faculty intern provides a new outlook to existingproduction problems. The company may utilize the faculty’s analytical skills to scrutinize issuesthat may require many man-hours of investigation.An advantage of the faculty intern process is that the company implicitly conveys the informationto the university on what attributes they are looking for in our program graduates. McMastersand Matsch have previously studied attributes of engineering graduates from
students with multipleexperiences working with people from other majors as they progress through their curriculum.This sequence is completed with a yearlong senior capstone design course that has a focus onsystem design, building, testing, and operation.It is recommended that the development of professional skills in the engineering technologygraduate be strengthened to help produce the engineering leadership characteristics required forimplementing engineering solutions to help solve the complex challenges facing companies,regions and planet. Professional skills such as a complex system-level perspective, inter-disciplinary teamwork, leadership, entrepreneurship, innovation, and project management shouldbe central features of the design spine.A
approaches.I. Learning strategies and their use in engineering coursesCase-based learning uses previously solved problems to understand and investigate the decisionsand methodologies that were employed to arrive at the solution. For engineering courses, casesmay come from industrial projects or previous design projects. They include enough details aboutthe problem statement and the variety of solutions under consideration so that advantages anddisadvantages can be discussed. Depending on the course and topic, the case may draw attentionto the technical issues, economical aspects, and societal impact.Consider an introductory engineering design course, where students get their first exposure to thedesign process by solving an industrial problem. Prior
students’ knowledge building and intentional learning. Paper presented at the Annual Conference ofthe American Educational Research Association (New York, NY, April 8-12, (1996).8. Lutz, C. F. & Schachterle, L. Projects in undergraduate engineering education in America. Europeanjournal of Engineering Education 21 (2). 207-214 (1996).9. Arthur, M.A. & Thompson, J.A. Problem-based learning in a natural resources conservation andmanagement curriculum: A capstone course. Journal of Natural Resources and Life Science. Vol. 28. p.97. (1999).10. Baker, C.M. Using problem-based learning to redesign nursing administration masters programs. TheJournal of Nursing Administration. Vol. 30. No. 1. p. 41. (2000).11. Burruss, J.D. Problem-based learning
conducted midway through the programto mainly assess the program's flexibility and its effect on career advancement. Exit interviewswere conducted just before graduation to mainly obtain feedback on how the programcontributed to life-long learning. Focus groups were held every 4 months with the EAPMadvisory council to review the quality characteristics of our program. Industry surveys were sentout every 2 to 3 years to our industry partners who participate in the program. Projectevaluations were obtained at the end of the students' capstone project/thesis to determine studentlearning, implications of the project on the student's company and on the student's career.Student data were gathered from our graduates at various periods (e.g., 2 and 4 years
twofold: to discuss the challenges ofadopting XR technologies and to share practices, strategies, and mindsets for faculty-led projectsin STEM education, emphasizing a bottom-up rather than a top-down organizational approach.The implication of this ongoing project is to utilize an approach by which all faculty, staff,students, and administrators collaborate to understand more about all stakeholders’ needs beforeadopting technologies for teaching and learning. The paper outlines a framework for requirementgathering in the adoption of technologies such as XR applications for teaching and learning inSTEM fields. This framework aims to assist faculty members interested in either leading orcontributing to technology adoption initiatives at their
workday, travel to theuniversity, attend the presentation, provide feedback to the presenter, and engage with students.While it is feasible on occasion, maintaining this regularly also poses challenges. Figure 2 – A mentee discussing his project with his peers and an industry mentorDuring the spring symposium, students highlight their projects, such as their capstone,internship, or class projects. This event also serves as a platform for students to make a positiveimpression on industry professionals, potentially leading to securing internships for theupcoming summer. The interactions during the symposium are often fantastic, but the follow-upengagement outside the event could be improved. Figure 3 – A mentor industry giving
engineering experience.II. Electrical and Computer Engineering CurriculaThe curriculum in Electrical or Computer Engineering at most colleges and universities satisfiesABET accreditation requirements2, 7 by means of four-year programs that generally begin with aFirst-Year introductory design experience, followed by a thorough exposure to analyticalfundamentals, core courses in the engineering major, and finishing with a capstone designexperience in the last year. There are generally no requirements, either within accreditationguidelines or within institution-specific curricula, pointing to educational goals that address theworldwide nature of their engineering field, or the momentum of the trend toward globalization.At Lafayette College1, the program
Improvement • Electronic Commerce • Entrepreneurship & New Venture Creation • Finance & Accounting for Managers • Environmental & Energy Management • Health Care Management & Administration • Leadership, Teams and Managing Change • Information Technology Management • Global Program and Project Management • Manufacturing Management • New Product Development & Commercialization • Business Policy and Strategy – Capstone and/or • Program
engineering experience.II. Electrical and Computer Engineering CurriculaThe curriculum in Electrical or Computer Engineering at most colleges and universities satisfiesABET accreditation requirements2, 7 by means of four-year programs that generally begin with aFirst-Year introductory design experience, followed by a thorough exposure to analyticalfundamentals, core courses in the engineering major, and finishing with a capstone designexperience in the last year. There are generally no requirements, either within accreditationguidelines or within institution-specific curricula, pointing to educational goals that address theworldwide nature of their engineering field, or the momentum of the trend toward globalization.At Lafayette College1, the program
Improvement • Electronic Commerce • Entrepreneurship & New Venture Creation • Finance & Accounting for Managers • Environmental & Energy Management • Health Care Management & Administration • Leadership, Teams and Managing Change • Information Technology Management • Global Program and Project Management • Manufacturing Management • New Product Development & Commercialization • Business Policy and Strategy – Capstone and/or • Program
samesemester. A second digital course was also added to the curriculum to address what we felt wasa deficiency in the curriculum.A two semester required senior project design course sequence was added to the final twosemesters. This was a significant departure from the previous curriculum where we had a onesemester, optional senior project course. Our reasoning for this addition was that it wouldprovide a capstone experience for all students, and we could incorporate topics on projectmanagement and teamwork. We also felt that two semesters would provide students greater timeto plan and execute a design project. Most of the debate centered around the number of creditsand laboratory time for the course. By structuring the course with both theory and
“Bridging the Information Gap in the Comprehensive Design Studio” John J Phillips, PE Oklahoma State UniversityAbstract:The culmination of a students design education at Oklahoma State University’s School ofArchitecture is experienced in the nine credit hour comprehensive design studio. The approachused in teaching this studio is a team concept, with four different faculty members specializing inarchitectural design, mechanical systems design, and structural systems design. Additionally,separate courses in project management and environmental controls design (as elective courses)are closely linked in the same semester. The scope of the comprehensive design
(ACC) has primary responsibility for reporting to theRBE Faculty. Senior Capstone projects (MQPs) are reviewed by every program every two yearsand those results are likewise reported. Page 15.1046.5 RBEFigure 3. Continuous improvement process flow.All assessment is performed relative to overall program objectives and specific educationaloutcomes.3.2. ObjectivesThe objectives of the Robotics Engineering Program are to educate men and women to • Have a basic understanding of the fundamentals of Computer Science, Electrical and Computer Engineering, Mechanical Engineering
©American Society for Engineering Education, 2025 International Coral Reef Research Experiences for Community College StudentsIntroductionCommunity colleges are evolving from their traditional roles of providing a two-year experienceor a technical education into institutions capable of offering not just associate degrees, but careerprograms, professional and continuing education, language, and equivalency programs andbeyond [1], [2], responding to the changing needs of communities and their economies.However, research practices are not inherent to the community college model and are rarelyincluded as a component in student training or capstone experiences. Additionally, coral reefscience is considered an
Project Management and diversity, and ethics. EconomicsGiven the importance of humanistic content in achieving most of the current ABET outcomesand the rigor of the accreditation process, it seems inevitable that all accredited institutionswould provide evidence of student achievement in those areas and cover some humanisticcontent in capstone design and introduction to engineering courses. Inclusion does not, however,guarantee either the depth or degree of integration that would reliably achieve the aspirations ofThe Engineer of 2020 or EC2000 (Gravander, 2004). ABET evaluators, who are all fromengineering professional societies, are unlikely to have expertise in the humanistic aspects
multipledimensions. The three faculty members involved judged the presentations at semester end, toprovide relative rankings for grading purposes.Once the infrastructure is developed, it is our intention to utilize it to enhance retention ofwomen and underrepresented minority students in engineering and to encourage moreengineering students to undertake such transdisciplinary projects for their capstone designproject in their senior year. Research studies will be set up to pursue these studies. Anothersimilar study, documented at this conference, provides more details on this future researchendeavor (Shankar et al., 2017b).Rationale - A Health Sector Perspective:Health care cost has skyrocketed to 17% of the US GDP. Americans are not living longer
Approach to affective, Orientation-Reflective Value Awareness Empathetic Electrical Engineering Courses [31] behavioral Being- Whole Profession Empathic approaches in engineering capstone Skill- Perspective Taking, Mode Switching cognitive, design projects: student beliefs and reported Orientation-Epistemological Openness, Reflective Value Awareness, Commitment to behavioral behavior [32] Values Pluralism Empathy and ethical becoming in biomedical
), 3) choosing a mentor, 4) choosing a potential employer, 5) developing critical skills listed in company job postings, 6) planning for a career fair, 7) writing a 1-3 minute career fair plea/pitch for potential employers, 8) preparing for paid internships, 9) preparing for a full time job, 10) preparing for interviews, 11) preparing for a paid project (e.g. University Undergraduate Research Initiative (UURI), Western Alliance to Expand Student Opportunities (WAESO); see [33] summarizing 14 such projects), 12) preparing for a senior design capstone project, 13) preparing for an honor’s thesis, 14) preparing for graduate school, 15) preparing a statement of purpose, 16) preparing for graduate work (e.g. thesis), 17) preparing for