20% Government 31% Figure 1 Economic Development Overview of Eastern North Carolina Page 9.15.1 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Session 1793This manufacturing sector is composed primarily of small plants with less than 300 totalemployees
design project and undergraduate research.2. Curriculum reformIn Michigan, clean & renewable energy, and energy efficiency practices has been adapted as a principalstrategy to regain its predominance in the manufacturing sector. A spectrum of curriculum insustainability, renewable energy, green manufacturing and energy efficiency has been introduced inuniversities. Western Michigan University (WMU) has adapted energy efficiency and sustainability as acornerstone of the university policies and guidelines. It promotes education, research and innovation inenergy conservation, renewable energy, environmental safety and green practices. All operational anddevelopmental projects of the university are required to adapt these principles. Within the
anengineering material justifies their inclusion in undergraduate engineering education. In general,there exists a need to create sustainable nanotechnology modules within current engineeringcurricula and within required engineering courses. While many nanotechnology topics can beintegrated without much difficulty into materials engineering curricula, this integration is often achallenge in other engineering disciplines. Carbon nanotube manufacturing topics could beintegrated within manufacturing processes courses that exist as required courses in many Page 13.68.2undergraduate mechanical or industrial engineering programs.Pedagogically, engineering
© American Society for Engineering Education, 2008 The Earth Sustainability Course SeriesAbstractA four semester Earth Sustainability-themed general education curriculum was developed byVirginia Tech in response to urgent calls for a more seamless integration of liberal and technicaleducation. It provides a basic framework for understanding worldviews, water, energy, food,shelter, waste, and health from interdisciplinary viewpoints. Incorporating a learning communitypedagogy promotes deep and meaningful learning by inviting participants to become activeparticipants in their own learning.The focused curriculum of many engineering programs is not in and of itself adequatepreparation for meeting the needs of employers or our
engineering, project-based engineering program, or Iron Range Engineering program, [however] they referred to it. And they’d forget to mention [the University].” State University President “I remember one time in a Curriculum Committee meeting we were going to explain, before we dropped the curriculum off on them, what the philosophy was. … [The On- Site Director] went to that meeting and I had him speak because they had known [him]. I was new, so I wanted him to [speak]. Well, then they saw him as being at Itasca Community College telling them how to educate engineers at a university. We’re a community college, they’re a university. Oh my gosh. One guy stood up and…yelled at us and he goes, ‘This
. Page 23.776.1 c American Society for Engineering Education, 2013 Integrating Liberal Studies at the Assignment Level – A Case StudyAbstract:The definition of liberal arts has evolved from its Roman origins, and its renaissance expansion.While there are many modern interpretations of what constitutes a liberal arts curriculum, onedistinction has remained throughout; a focus on and value of intellectual rather than vocationalskills. This paper demonstrates an approach to integrating those intellectual skills to enhancevocational ones.As a result of industry feedback, a community college adopted four Workforce Skills to beintegrated into the entire curriculum
from her employer in 2009, 2011 and 2012 for successful project management. Her areas of work and research interest are device design and regulation on medical devices.Mr. Md Mehedi Hasan, Grand Valley State University I have been working as a research assistant in supply-demand planning of Lithium-ion batteries for electric drive vehicles while pursuing my MS in Product Design & Manufacturing Engineering in Grand Valley State University. I pursued my bachelor in Industrial & Production Engineering from Bangladesh Uni- versity of Engineering & Technology in 2012. My areas of interests are manufacturing processes, quality management, supply chain management etc
faculty within the ECT program, MIT-Construction Management programas well as the MIT-Manufacturing Technology program at BGSU were consulted to assist in thecreation of a list of items relevant to the establishment of the ECT masters program. In addition,information gathered from the ten universities that have similar master’s programs was also usedin creating the questionnaire. These list of variables included i) whether there should be a Page 13.118.7master’s program in ECT, ii) curriculum content of the master’s degree program, iii) deliverymethods as well as other very important variables relevant for the degree program.Though the
Education [11], [12]) and the themes of “application of emerging technologies” and “education for manufacturing”? [9]; 3. Will current teaching strategies be able to keep pace with emerging technologies and their related instructional requirements? [13]; 4. How will industry’s expectations for entry level engineers be satisfied through interdisciplinary education? [14]; 5. Given that students’ enthusiasm increases if they understand why they should learn a topic, how can they be motivated to engage and master concepts not directly related to their chosen field? [15], [16]; and, 6. Finally, how will these complementary (and sometimes conflicting) requirements be satisfied within the resource constraints of the
curriculum was developed with the help ofthe Center for Industrial Services, University of Tennessee, to educate the employees ofsmall and medium-sized manufacturing industries around Knoxville. The outcome of thecourses benefited various small and medium-sized industries by providing them allpossible information regarding the process improvements that can be achieved byimplementing Lean product development. Page 14.1234.10Industry involvement The dual-degree program has enabled our courses to benefit from neighboringindustries in the form of the involvement of industrialists and successful entrepreneurs asmentors and instructors to students. The
concern with the timing of the project management unit. One studentcommented, "I felt unsettling that we left economics for so long and then went back to it." Thesecomments show how students tend to compartmentalize their studies in separate bodies ofknowledge. Nevertheless, the School of Engineering curriculum design includes a commitmentto curricular "threads" in communication, design, and ethics. The inclusion of this case study atthe junior level supports the thread concept. The full set of results for the two case study Page 7.268.5 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition
stringent curriculums may make studyingabroad or taking additional courses difficult, it’s becoming increasingly important for STEM majors tolearn to work effectively across cultures. This aspect of STEM fields is often not stressed duringundergraduate education. Thought the Pavlis Institute admits students from all areas of study, it isespecially useful for students in STEM majors who may not have many other opportunities in their majorclasses to learn about cross-cultural communication and leadership. Page 23.456.5 “The Pavlis program opened my eyes to an aspect of education that I think is often overlooked, and that is the
.”B. Legacy CycleThe legacy cycle developed as part of the RET program was implemented in the ninth gradeclassrooms of approximately 25 students each. The class was a good mix of male and femaleand included special education students. The classes were mostly Caucasian; with 3 Hispanicstudents and one African American student. The school is a Title I school which means thatmost of my students are low income. The legacy cycle was implemented in all blocks taught bythe participant as well as the classes of a fellow teacher. The legacy cycle was implemented atotal of 5 classes. It took nine, ninety-minute classes to complete the legacy cycle. The grandchallenge of the legacy cycle was: “You have been invited to attend a surfing competition with
Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Education”In this model, the learning activity represents the smallest component of the curriculum. Learningactivities are grouped together to form sessions. One or more sessions may make up a singleclass period. These sessions, taken together, form the module that is one component of theEngineering 95 course. The structure of the IE/I&SE module appears below. Detaileddescriptions of the various component activities appear in the section “Module Content”. IE/I&SE Module Week 1
will describe electrical and mechanical courses and expected learningoutcomes. Learning outcomes for these classes were prepared by the faculty members for ABETAccreditation board visit to our college in fall 2006. We will first describe the Electrical coursesfollowed by the Mechanical courses.Persons employed in the power systems area must be able to understand three phase powergeneration and distribution. They must be able to perform basic analysis and further understandthe control aspects of power generation systems and be prepared to manage and make designchanges as well. The educational goal of our curriculum is introduce the concepts that willsupport the understanding of modern power systems. Graduates at the associate level will beable
. Mikhail Bouniaev, University of Texas, Brownsville Dr. Mikhail Bouniaev, Dean of the College of Science, Mathematics and Technology, and Professor of Mathematics at the University of Texas at Brownsville (UTB). He holds a Ph.D. in Mathematics from Moscow Institute of Electrical Engineering and a Doctor of Science in Pedagogy degree from Moscow State Pedagogical University. His research interests include functional analysis, topology, applied mathe- matics, nanosciences, psychology of mathematics education, using technology in teaching mathematics, training mathematics teachers and curriculum development. In each of these areas he has publications including 6 books and 60 peer reviewed papers. Though his scholarly work
prepared for its ABET visitin the fall 2005, it became apparent that its IE 1035 – Engineering Management course was aprimary course for satisfying ABET outcomes (h) the broad education necessary to understandthe 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; and (j) aknowledge of contemporary issues.4 IE 1035 is a semester-long, 3-credit, required course forIndustrial Engineers taken in their senior year. Specifically this course discusses modernengineering management theory as it applies to technical organizations. Topics include: themanagement process; project management; managing technical people; communications
methodology includethe use of educational objectives as design “functions” and the use of pedagogical theoriesand learning style information as part of the “analysis” step in the design process. Detailsof each step in the process are presented. The methodology is used to compare the use oforiginal and redesign projects. This comparison highlights some distinct advantages ofredesign oriented hands-on projects.1. IntroductionThere is considerable literature that addresses the advantages of using hands-onexperiences in engineering curriculum [1-14]. Although assessment indicates that theincorporation of hands-on experiences almost always improves a given course, thereappears to be a dearth of information regarding the effective design of hands-on
, and engineering(b) an ability to design and conduct experiments, as well as to analyze and interpret data(c) an ability to design a system, component, or 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
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 issuesThe EAC of ABET also requires that programs establish longer term objectives in Criterion 2Program Educational Objectives (PEOs). We have established Program Educational Objectivesnot only for the EAC of ABET accredited Master of Manufacturing Systems Engineering(MMSE) program, but for all master‟s programs in the school. The Program Educational Objectives for the MMSE program are as follows: Page 22.459.3
Page 7.1193.1course. In order for us to adequately discuss these methods, Section II addresses t he curriculum into Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering Educationwhich they are integrated. Section III discusses a forward and inverse kinematics assignment usingprecompiled mex function for robot control. Section IV presents a Jacobian-based controlassignment using the serial port capabilities of MATLAB. II. BACKGROUND Midshipmen in the Systems Engineering Major at the USNA take an interdisciplinarycurriculum with an emphasis on control systems and dynamics. During their first -class (senior)year
codes and pre-defined classes hide theunimportant programming details while allowing access to high-level algorithm design.IntroductionOver the past two decades Materials Science and Engineering (MSE) has changed significantlydue to the integration of computation into nearly every aspect of materials manufacturing,development and basic research. For example, computer simulation is increasingly used topredict cooling histories and resulting microstructures in metal alloys, to unravel the details ofmolecular conformations that determine the function of biological molecules, and to understandthe basic science behind a variety of electronic materials processes. However, the curriculum inMSE has not kept pace with these advances in the field
months).From Jennifer Knauf, Sales Engineer at The Lincoln Electric Company:“The MEM curriculum added business skills to my fundamental engineering knowledge. Theseadded skills allowed me to secure a position in a company interested not only in my technicalskill set, but also my ability to save them money through the methods and techniques I learned inthe program. The MEM program has put me in a position to excel in the business-centeredengineering field.” Page 9.749.4 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright . 2004, American Society for
Page 9.940.2successful transition from school to work. As a result, engineering educators have had to rethink Proceedings of the 2004 American Society for Engineering Education Annual Conference &Exposition Copyright © 2004, American Society for Engineering Educationtheir approach to education in order to equip students with the necessary professional skills to beeffective in industry.Integration through Interdisciplinary CollaborationIn order to prepare engineering students for their future as professionals, several approaches toteaching have been employed. These include requiring completion of a technical writing course,participation in writing/speaking across the curriculum programs, integratedcommunication
domestic nuclear power industry, someof its challenges and accomplishments, and developments forming new and expanding directionsfor the future of this truly remarkable industry. The second part of the paper deals exclusivelywith nuclear engineering technology, a part of the academic enterprise that nurtures and sustainsgrowth of the nuclear industry by providing it graduates with specialized work skills and a solidunderstanding of nuclear science basics. The paper examines course offerings of establishednuclear educational programs including that at the U. S. Navy’s Nuclear Power School. Thisinformation is used to develop the curriculum for a four-year Bachelor of Science degreeprogram in Nuclear Engineering Technology. The template for the
schoolstudents in the ‘President’s Academy’ here at Tennessee Tech University. They were put incharge of difference activities designed to educate and excite the students about fuel cells. Theperformance of the teachers was impressive especially with how fluid their understanding of fuelcells was and how well they communicated it to the students.The mentor for the teachers’ comments: “I speak for my entire group when I say it was apleasure to have both teachers in our lab. They made truly synergistic contributions to the work,which has had lasting impact. I could see the excitement in their eyes when they found ways tolink what they teach to their high school students to relevant physical phenomena.”Legacy CyclesThe teachers prepared two legacy cycles
.14Engineering educators generally agree that design projects provide significant opportunities tomotivate students. The Electrical Engineering (EE) faculty at the University of Wisconsin-Platteville (UWP) believes that appropriately designed projects integrated into the curriculumprovides immediate applications of the theory and also expands students’ horizon regardingwhat kind of problems they will be dealing with in the real world after graduation.Furthermore, design projects help students develop their “soft skills” that are essential to besuccessful professionals. Hence, the EE faculty has designed a curriculum where design isdistributed throughout the curriculum. The following sections detail our approach to teachingdesign and providing extensive
professional responsibilities inengineering situations, and make informed judgements...” [1]. Typically, ethics education issummarized into four main goals: 1) to make students aware of professional expectations, 2) tosensitize students to potential ethical issues that may arise, 3) to improve the students’ ethicaldecision making, and 4) to motivate them to behave ethically [2].The recent unscrupulous activity at high profile companies like Volkswagen [3] and Boeing [4]underscores the need to better prepare students for their professional practice. Unfortunately,effectively forming ethically-minded students is challenging due to credit hour limitations in theengineering curriculum, low student engagement, and a lack of perceived value in the
Van Den Einde is a Teaching Professor in Structural Engineering at UC San Diego and the President of eGrove Education, Inc. She incorporates education innovations into courses (Peer Instruction, Project- based learning), prepares next generation faculty, advises student organizations, hears cases of academic misconduct, is responsible for ABET, and is committed to fostering a supportive environment for di- verse students. Her research focuses on engagement strategies for large classrooms and developing K-16 curriculum in earthquake engineering and spatial visualization.Elizabeth Rose Cowan, eGrove Education Inc. Elizabeth Cowan is a User Experience Researcher and Designer for eGrove Education, Inc., which de
quite a bit of this curriculum at a time when students were more prepared tounderstand it better. For example, all but the second learning objective was covered at leastpartially in the sophomore-level Excel and Minitab course, which had Calculus I as aprerequisite.Lastly, the curriculum was not showing any benefits in retaining students as IndustrialEngineering majors. Of the 28 students who completed the Fall 2007 offering of the course, onlysix, or 21.429%, have remained Industrial Engineering majors. The other 22 included two of thehighest-performing students, both of whom initially changed their majors to Mathematics.The New Curriculum for the CourseHighly motivated by these issues, the authors tasked themselves with developing a