engineeringtechnology educational programs is not well defined. The career status of technicians,technologists, and engineers is not understood by educator or employer.”37 This confusion withengineering has not abated over the years. Engineering technology suffers, as an academic andeconomic discipline, from a lack of clarity about what it is, what its graduates do, and confusionabout the boundaries between it and its more powerful and well-known discipline, engineering.Using the paper’s theoretical framework for boundary work of knowledge, practice, and power,one can see the how the boundaries between engineering technology and engineering lackdemarcation, to the detriment of engineering technology. Knowledge. ABET, the national accrediting body for
Paper ID #7337Meeting the NAE Grand Challenge: Personalized Learning for EngineeringStudents through Instruction on Metacognition and Motivation StrategiesDr. Michele Miller, Michigan Technological University Dr. Michele Miller is an associate professor of Mechanical Engineering at Michigan Technological Uni- versity. She teaches classes on manufacturing and does research in engineering education with particular interest in hands-on ability, lifelong learning, and project-based learning.Dr. James P. De Clerck, Michigan Technological University After an eighteen year career in the automotive industry, Dr. De Clerck joined the
3 hours NANO2151 Career Planning and Industry Tours 1 hours NANO2970 Industry Internship 2 hoursTotal Core Credit Hours 27 hours Program Requirements 72 hrsTable1: NANO-Science Technology Dakota County Technical CollegeCentral New Mexico Community College (CNM):CNM Advanced System Technology program enables its students to succeed in Electronics,photonics and MEMS. The Automation and Telecommunication concentration provides CNMstudents with the analog and digital lab and hands-on experience to get started in high tech careerof industrial automation and control. Courses offered in this concentration provide hands-onexperience in robotic automation, microcontroller and PLD
of research of experience before graduating with a Bachelors degree. I wish to send my thanks to Dr. xx for giving me the opportunity to prove myself in the advanced materials lab prior to my junior year. I would also like to thank my adviser Dr. xx for his continued support and guidance. This experience was hugely important in starting my career and I would highly recommend any undergraduates to take advantage of research opportunities such as this.” − “A good opportunity to pursue research at the College of Engineering; facilitates communication between students and professors they would likely
. Thesecond highest rank was for strategy using technology focus, and the lowest was for strategy thatrelied heavily on classroom orientation.Having hands-on laboratory is one condition, but the laboratory practices should be relevant toprepare graduates for their manufacturing career. Miller5 surveyed 25 department heads of USmanufacturing programs and concluded that an exemplary manufacturing program should: a) Require more technical coursework b) Require or strongly encourage cooperation with industry c) Maintain closer relationships with industry d) Has more manufacturing faculty and students e) Place a greater emphasis on teaching f) Provide numerous, well-equipped facilities g) Produce graduates more knowledgeable of materials and
Paper ID #7655The Design of a Wi-Fi Enabled Cloud Monitoring DeviceDr. Esther T. Ososanya, University of the District of Columbia Dr. Ososanya is a professor of Electrical and Computer Engineering at the University of the District of Columbia. During her career, Dr. Ososanya has worked for private industry as a circuit development engineer and as a software engineer, in addition to her academic activities. Her Research Interests are in VLSI ASIC design, microcomputer architecture, Embedded Systems design, Biosensors, and Renewable Energy Systems. Dr. Ososanya has managed and Co-PI several research grants, and has
Research and Learning (INSPIRE) at Purdue University. Dr. Purzer is a NAE/CASEE New Faculty Fellow. She is also the recipient of a 2012 NSF CAREER award, which examines how engineering students approach innovation. Her expertise is on assessment and mixed-methods research. Page 23.1227.1 c American Society for Engineering Education, 2013 The Quality of Engineering Decision-Making in Student Design TeamsAbstractEngineers often must decide between multiple design options that present tradeoffs. Engineeringstudents gain experience making and justifying such decisions during team design projects
RochesterInstitute of Technology (RIT). We developed an educational approach and undergraduateteaching modules for Green Plastics Manufacturing Technology within foundational courses inthe materials and manufacturing education. The outcomes of the project bring innovation andchanges, not only in terms of creating an effective instructional model for the undergraduateSTEM education, but also by encouraging students to do research as they prepare for careers in Page 23.1268.7green plastics manufacturing technology (GPMT).AcknowledgementThe National Science Foundation (Award No DUE-1044794) supports this GPMT project.Bibliography1. Hmelo-Silver, C., Ducan
on how well the design process is used andhow well the final designs meet design specifications and performance criteria. What do we expect in an Introduction to Engineering paper? The course requires the students to complete five assignments with a substantial researchelement. Two of the papers are the Whole Life Concepts and Disciplines parts 1 and 2, whichtakes the student through the decisions that lead to a specific career goal, then considers the skills, Page 23.1382.4knowledge, and tools needed to reach that goal. The research involved in the Whole Life Papershould evaluate the market for a particular engineering profession
application inpreparation for entry into a career.” Durel [3] offers another perspective stating that capstone canbe seen as a “rite of passage or luminal threshold through which participants change their statusfrom student to graduate. A capstone course should be a synthesis, reflection and integration,and a bridge or a real-world preparatory experience that focuses on the post-graduation future.”Other definitions include, a crowning course or experience coming at the end of a sequence ofcourses with the specific objective of integrating a body of relatively fragmented knowledge intoa unified whole [4], and an experimental learning activity in which analytical knowledge gainedfrom previous courses is joined with the practice of engineering in a
and environmental, construction engineering and constructionmanagement programs, and is known for research on the connections between the builtenvironment and human and natural systems.MCC is the largest of ten community colleges in the Maricopa Community College District andis the largest community college in the nation, comprising more than 40,000 students, offeringtwo-year degrees as well as transfer, career and certificate programs and is one of ASU’s largesttransfer providers. The Physical Sciences Department at MCC includes traditional freshman andsophomore level astronomy, chemistry, engineering, geology and physics courses. Engineeringcourses are designed to prepare student to transfer to four-year degree-granting institutions.MCC has
receive sometoken curricular reward for their efforts, the time and energy spent on such projects dwarf whatstudents would normally spend in formal classes, and many teams don’t receive any formalcurriculum acknowledgement. Such projects are largely a work of love realized by passionateand driven students, primarily on a voluntary basis. Robert Stebbins’ concept of serious leisure is an appropriate frame to examine suchactivity in a range of informal and voluntary settings. According to Stebbins, people engaged ina serious leisure effort show the following characteristics: a) perseverance to accomplish the task at hand; b) the ability to progress along a career-like path; c) the investment of significant investment
of modifying organisms. The students’ feedbackwas primarily based on limited exploration of the overall capstone challenge. Students wished there wasmore leeway regarding the organisms they could modify. For some students, they desired a more open-ended challenge, while others were comfortable with more direction.With this particular class, we discussed multiple aspects of how biology and engineering intersect. Manystudents could not provide examples of career opportunities in biology. Students also did not understandthat chemistry and biology affects almost everything they eat and drink. Furthermore, students did notunderstand that biology has a lot to do with everyday items such as the sneakers they wear and thefurniture they sit on. Until
worksheet focusedinstruction. More specifically, students collaborated to solve math problems more than thecontrol group, which involve a set of valuable skills they will need to succeed as engineers andessentially in several STEM careers. Particular components of the PBL unit that encouragedteamwork and collaboration and the engagement survey will also be discussed in detail.IntroductionConnecting real world problems with academic content is an important part of engineeringeducation, and within this are several opportunities for students to see the connection betweenseveral academic subjects and their applicability in the real world, particularly withmathematics1. Helping students to learn these connections at early ages can set the foundation
healthcare process improvement. Prior to his academic career, Dr. Schell spent over a decade in industry focused on process improvement and organizational development. This time included roles as VP of Strategy and Development for PrintingforLess.com, VP of Operations Engineering for Wells Fargo Bank, leadership and engineering positions of increasing responsibility with American Express, where his last position was Director of Global Business Transformation, and engineering positions with the Montana MEP. Page 23.723.1 c American Society for Engineering Education, 2013
Engineering Education, 2013 Integrating Online Identity Management Tools in a Complete Social Media Literacy Curriculum for Engineering and Technology StudentsThe management of one’s online identity - defined as the sum of information available about aperson online - is becoming very important for engineering and technology students entering acompetitive job market. In an age when employers review Google search results, LinkedIn andFacebook activity, in addition to the traditional resume1, students need to be able to craftprofessional online identities that represent their skills and personalities accurately while servingtheir career goals. However, with the abundance of social media accounts, online information,and the complexity of
Frady, Clemson University for Workforce Development Kristin Frady is the Assistant Director for the Clemson University Center for Workforce Development. Prior to joining the team at Clemson, Kristin gained experience in the corporate sector working with Blackbaud Inc., designing and delivering professional training seminars in online, blended, and live envi- ronments. She has experience in the educational sector in both live and online environments as an adjunct instructor in computer technology for Greenville Technical College and as a Career and Technology Ed- ucation teacher for Eastside High School in Greenville County. Kristin earned a B.S. in management from Clemson University and a Master of Arts Teaching in
Western New England University where he teaches biomedical engineering. His interests include the application of non-linear control theory to soft biomaterial phase transitions and cellular level phenomena. Prof. English is the recipient of a National Science Foundation CAREER Award. Page 23.801.1 c American Society for Engineering Education, 2013 Interdisciplinary Problems and Numerical Analysis: 10 Things We Wish We Knew 20 Years AgoAbstractNon-engineering faculty often find the engineering quantitative mindset and ability to conductnumeric analysis
making of a functioning,interactive system contributed to the high levels of learning indicated in the responses. In thiscase the collaborative, cross-disciplinary and “hands-on” nature of the activities engaged inoperated as a catalyst for learning. The projects required that students pool their domain-specificskills and knowledge and teach each other in order to succeed. Students were exposed to Page 23.853.5different tactics and methods for acquiring, integrating and using new knowledge and new formsof knowledge. This was sometimes affirmative - confirming for example that the student reallydid want a career as an engineer, or transformative
23.311.109. Needy, Kim L.; Pohl, Edward; Specking, Eric; “Raising the Level of Participation in Study Abroad by Industrial Engineering Undergraduate Students”, ASEE Annual Conference, San Antonio, Texas, Paper 3401, June 2012.10. Specking, Eric; Needy, Kim L.; Pohl, Edward; “Global Studies: A Study on Why More Engineering Students Do Not Participate”, ASEE Annual Conference, San Antonio, Texas, Paper 3402, June 2012.11. Autumn, Studying Abroad Inspires More Travel Plans, University Language Services, http://www.universitylanguage.com/blog/02/studying-spain-inspires-travel/, accessed January 1, 2013.12. Steves, Andy, “How My Study Abroad Inspired My Career Path”, The Professionals in International Education, http
camp provides the opportunity for teachers and students to 1) betterunderstand the history of cyberspace, cryptography, and cyber security; 2) experience cyberapplications and programs; 3) discuss social and ethical implications of cyber; 4) explorepossible cyber career fields; and 5) gain an appreciation for the need to secure cyberspace. Thedynamic interactive camp curriculum consists of hands-on labs, a cryptographic treasure hunt,writing assignments, evening film sessions, and a Final Cyber Challenge. The Parallax Boe-Bot™ is used as the core teaching platform throughout.In the months preceding the camp, high school teachers, one science/mathematics teacher andone humanities teacher from each school, attend two professional development
to have anumber of different jobs over the course of their careers. Graduates must be able to reconcile thedifferences they encounter in norms and behaviors in various contexts, and both educators andemployers increasingly recognize this demand. But, although there is broad policy interest inglobal competence for many different fields, there is a gap between these policy interests and themethodological tools available to assess the skills that demonstrate intercultural competence.Broad interest in global competence for university graduatesAcademics, business leaders, and government officials in the U. S. and around the world areconcerned about whether new graduates entering the labor market are being prepared toparticipate and compete in
, communication, and forestry. Michigan Tech has a first-classreputation for excellence in science, technology, and engineering education. In fall 2012 totalenrollment was 6,947 students, including 1,288 (18.5%) graduate students. Over 64% ofMichigan Tech students are enrolled in engineering and technology programs.The EET program offers a Bachelor of Science in Electrical Engineering Technology and isdesigned to train the future workforce directly in response to industry needs. The EET program isapplication-oriented and focuses on preparing graduates for entry into the workforce upongraduation. Graduates of the program are electrical engineering technologists with career optionsin micro-controller applications, robotics, industrial automation
sample of the type of instruction that astudent experiences during his/her academic career at the university. This use of multipleinstructors will also help minimize the effect of a given instructors influence on student success.Among the different instructors, there are also different approaches to attendance. One professorutilizes a requirement for attendance resulting in negative consequences for absences. Anotherutilizes a reward system. Another tracks attendance but neither rewards nor punishes studentsbased on attendance. This spectrum of approaches to how attendance affects students’ gradescreates an additional opportunity to research what motivates a student to attend and to besuccessful.Data has been gathered starting with the January
graduates in the department of engineering and technology at WCU,developing an emphasis in electric power engineering plays a vital role in educating the nextgeneration of the region’s power industry workforce.To that end, an undergraduate curriculum development effort was planned and is projected totrain, prepare for research, and educate the students enrolled in the Department of Engineeringand Technology for careers in the power industry. The curriculum includes three fundamentalpower engineering courses: 1. Power Systems 2. Power Electronics 3. Electrical Machines and DrivesThis paper describes in detail the first pilot implementation of the Power Systems coursecomponent entitled “Modern Power Systems Analysis” for Electrical and
in the areas of automotive components design and manufactur- ing, vehicle dynamics, and electric-drive vehicle simulation and development, and has published widely in these areas.Joseph L Petrosky, Macomb Community College Joseph L. Petrosky is the Dean of Engineering and Advanced Technology at Macomb Community Col- lege in Warren, Michigan with responsibilities for a breadth of career and technical programs including advanced manufacturing, engineering technology, and automotive for degree, certificate, workforce and continuing education areas. Joe’s prior experience includes working at Focus: HOPE, a non-profit organization whose programs in- cluded engineering education and workforce development within a
their students to learn the course materialas it is taught so that the students can fully master the subject. This encouragement can becomeparticularly difficult to achieve in fundamental courses taken by a wide range of students whomay not perceive the relevance of the subject matter to their major or their career aspirations.For example, a one semester course on Basic Engineering Thermodynamics is often taken bymost engineering students, regardless of major, as a required course. Students in non-Mechanical Engineering disciplines often are less interested in this course, as it is out of theirmajor and appears to have little connection to their career goals. Furthermore, even somemechanical engineering students who are more interested in
their interdisciplinary degree. To aid students in addressing these challenges, thispaper addresses the research question: What are important characteristics of doctoral committeemembers for a student pursuing an engineering education PhD?Literature ReviewFaculty members are an important support system for graduate students, especially a facultyadvisor and the members of a student’s committee [6, 7]. These faculty members not only providethe necessary disciplinary content knowledge, but can also provide personal, career or emotionalsupport[7]. While earning an interdisciplinary degree, as that in engineering education, the role ofthe advisor can become more complex[8]. Co-advisors may be needed to provide the additionalcontent expertise or the
fundamental engineering principles, theywill be equally valuable to students who pursue careers in other engineering areas. Once developed, ourmodules could be adopted by classic engineering programs such as Chemical, Electrical and MechanicalEngineering, as well as specialized Biomedical Engineering programs, and could be implemented by fac- Page 23.950.2ulty who do not have specialized biomedical expertise. This paper focuses on the description of thecourse modules, which has been the primary activity during this first year of the project.GOALS AND OBJECTIVES The goals and objectives of this project are outlined below. o To