Social Components:All REU students are required to attend a weekly seminar program. Our 2004 program involvedthe following topics: • Membrane Science and Technology in the 21st Century (presented by the REU Director) • How to read a Technical Paper (presented by the UC Vice-President for Research) • Research Methods (presented by the REU Co-Director) • Intellectual Property (presented by the Director of the UC Intellectual Property Office) • Research Ethics (presented by the Director of the Emerging Ethnic Engineers program) • Post-Graduate Opportunities (presented by a new female Assistant Professor) • Critical Thinking (presented by the Associate Head of Chemical & Materials Engineering) • Mind Your Manners (presented by a
Conference Interdisciplinarity in Engineering, INTER-ENG 2015, 8-9 October 2015, Tirgu Mures, Romania, 22 (January): 1129–34. https://doi.org/10.1016/j.protcy.2016.01.159.Fosmire, Michael. 2020. “ETAC ABET Accreditation and Information Literacy: A Case Study of Mechanical Engineering Technology.” In . https://peer.asee.org/etac-abet- accreditation-and-information-literacy-a-case-study-of-mechanical-engineering- technology.Galaleldin, Mohamed, Francois Bouchard, Hanan Anis, and Claude Lague. 2016. “The Impact of Makerspaces on Engineering Education.” Proceedings of the Canadian Engineering Education Association (CEEA). https://doi.org/10.24908/pceea.v0i0.6481.Lanzo, Jaiden A. di, Andrew
, operations research. However, several courses are notdirectly related to the SCET but entered in this category to make students familiar, get moreunderstanding in the industrial process such as material, fluid systems, and safety in the industry.Some are related to computer and information technology applications such as databasemanagement, information system, computer programming, and data analytics in SCET. Theinternship program is included in this category as well.Courses added in management core are courses that make students have the ability to work in thebusiness environments, not only in industry. Examples of courses in this core are accounting,finance, marketing, and management.According to the first-mentioned criteria, the curriculum for
demonstrate those outcomes within ourprofessional activities as role models? This paper will reflect on how faculty and librariansfostered a successful cross disciplinary relationship and worked as an effective team built ondiverse personal strengths. The authors examine their journey to nurture an information fluentlearning environment which they viewed as one of critical 21st century teaching and learningissues, and share their lessons learned that are applicable to their team skill teaching practices.IntroductionSome of Technology Accreditation Commission of the Accreditation Board for Engineering andTechnology (TAC of ABET) Criterion 2 Program outcomes, such as (a) a mastery of theknowledge, (b) an ability to apply current knowledge and adapt to
) Weak fundamental knowledge related electrical engineering (EE), computerscience (CS) and information technology (IT); (2) Difficulty in understanding the advancedconcepts and theories of robotics; (3) Limited robotics class hours. Therefore, devising an efficienteducational pedagogy for the robotics classes of the MET program is desirable.In order to overcome the above-mentioned problems, a project-based pedagogy for the roboticsprogram is devised and implemented in the Department of MET. There are three levels of roboticscourses ranging from ‘introduction’, ‘application’ to ‘advanced’. A series of projectscorresponding to different levels are designed and then are assigned to students. The students learnand practice the fundamental theories
Paper ID #11654Global Technology Experiences for Upper Division Engineering Students: AnAssessmentDr. Patricia R Backer, San Jose State University Dr. Backer been a faculty at SJSU since 1990 and held positions as an assistant professor, associate professor, professor, department chair, and director. Since coming to San Jose State University in 1990, I have been involved in the General Education program. Currently, Dr. Backer serves as an evaluator for SJSU’s AANAPISI grant from the U.S. Department of Education.Prof. Wenchiang Richard Chung, San Jose State University Ph.D. Mechanical Engineering, Auburn University (1987
OF THE ECE PROGRAM AT OSUThe Power Electronics and Motor Drives Laboratory at OSU is designed for college seniors andfirst year graduate students. It includes a unique set of experiments with state-of-the-art Page 24.935.5equipment and software. It combines the traditional power electronics and motor drives circuitswith emerging energy conversion technologies. The content targets modern industrialapplications, including integrating renewable energy resources (e.g. wind, solar) into electricpower systems. Table I shows the prerequisites for the course.Although knowledge of sampling theory, digital signal processing (DSP), electromagnetics
Multidisciplinary Engineering Foundation Spiral includes the use of anEngineering Attitudes Survey to assess specifically the Project-based Introduction to Engineeringcourse. Because non-engineering majors also take this course, the survey allowed us to gatherinformation about students who are interested in science-related fields and yet did not chooseengineering as a major.The purpose of the Engineering Attitudes Survey was to assess students’ perceptions of theengineering profession and of their preparation to study this field. Questions in the survey werestructured so as to provide information that we could use not only to evaluate the progress of ourengineering students in the new curriculum, but also to help us better understand factors that
, instrumentality would be very high, and motivationpotentially would be high. Expectancy (E) is the perceived probability that the behavior can be successfullyperformed. To have motivation, the person must believe that all the knowledge, skills, andresources necessary for the behavior are present. The researcher would have to believe that sheknows (or can find) all the information needed for the book, that she has the ability to manageher time, that she has a working computer with a familiar word processor and enough storagecapacity for the book, as well as a scanner, internet access, or other technology needed for thewriting to go smoothly. To increase her expectancy, she might interview someone who hassuccessfully written a book to see what
Engineering Technology at DeVry University, Addi- son, IL 60101. Dr. Ahmed S. Khan is a Senior Professor in the College of Engineering and Information Sciences at DeVry University, Addison, Illinois.William Peter HernerMr. Christopher John Olejniczak, Devry University I spent four years in the Marines after high school. I then enrolled at Devry to pursue a degree in biomed- ical engineering technology. I have always been interested in electronics and how they work.Kulsoom Ahmed Page 26.1365.1 c American Society for Engineering Education, 2015 Sensor-based Hospital Staff
, are uniquelypositioned to provide such experiences. Among their recommendations the commission suggeststhat, “The first year of a university experience needs to provide new stimulation for intellectualgrowth and a firm grounding in inquiry-based learning and communication of information andideas” through such interventions as small freshman seminar courses requiring extensive writingand block scheduling where cohorts of students are scheduled into two or three common courses,also known as “learning communities.” 2In addition to the general literature exploring undergraduate education, several research studiesinto the specific problem of minority student retention in science and engineering have foundthat minority students face not only
nanotechnology areas including biomedical applications, renewable energy, and information technology. In all cases, the total cost of the readily available Page 22.999.4 materials (for 10-12 students) is around $100 per lab, and in many cases kits are available 3 for purchase. Although the laboratory exercises do not require sophisticated analytical instrumentation, the experiments can be supplemented with a wide range of analytical instrumentation (e.g., electron microscopy, dynamic light scattering, fluorescence spectroscopy) for schools that want to incorporate
understanding how these factors influence a state, businesses and organizationswill have a better understanding of where to market environmental technologies and what kindsof environmental technologies should be researched and developed.Definitions/ExclusionsOnly registered LEED projects within the United States were included. The USGBC LEEDwebsite was used to collect information regarding the amount of registered LEED projects withineach state. LEED was created by the USGBC in 2001. All projects dating from 2001 to the timeof data collection, April 9, 2008, were included in this study.AssumptionsThe author assumed that the number of USGBC LEED projects within a state represents acommitment of that state’s people to implement and utilize
success course focus on MATLAB programming. The transfer successcourse has been taught for the last four years by the same faculty member who teaches the materialand energy balance course. This paper will describe the success course structure, content andassessment. In addition, the graduation and retention rates will be presented for transfer studentswho have and have not taken the success course.Introduction Engineering and computing professionals are an essential ingredient for securing ournation’s future economic success (1-4). The availability of a diverse, highly skilled, and well-educated technology workforce is a must for meeting workforce demands and for solving thecomplex social, environmental, health, and security challenges of
the classroom. Educators nowadays mostly consider the learning process as a shareddiscovery and triggering of knowledge involving teachers and students in complementary roles.This is in contrast to previous models which envisioned knowledge being “given” to students bylearned (and autocratic) professors.The Accreditation Board for Engineering and Technology (ABET,) has, by its standards,encouraged professional maturity upon graduation. In the accreditation process, an institutionmust critically expose its curriculum and convince the accreditation team that professionalrequirements are met. The accreditation process invites a cross-referenced analysis of all coursesand activities, including details of each course’s contribution to the various
immeasurable. If we are successful in aiding Dr. Hausler with her work, she may be able to save thousands of lives around the world with new designs and new methods to build earthquake resistant homes.” “Project Objectives. We hope to provide Dr. Hausler with some research information that will help in her journey to find inexpensive and effective earthquake resistant Page 10.1042.3 housing. Specifically, we will be reviewing the proposed structural designs; analyzing them based on the characteristics of Uttaranchal and Himachal Pradesh, the two specific Proceedings of the 2005 American Society for
instruction in one of theclasses reviewed will be presented.IntroductionAdvances in technology in manufacturing present challenges to engineering programs that mustkeep their curriculums current so that their graduates meet the needs of the industries that hirethem. This is most important in the area CAD/CAM and CNC where new trends in software,information technology and hardware capabilities impact industry practices in machining. Onesuch manufacturing engineering program, the context for this paper, has traditionally maintaineda focus on CAD/CAM and CNC in its curriculum that extends back to its roots as an engineeringtechnology program. The faculty in consultation with the program’s Industrial AdvisoryCommittee have maintained a mission of
requirements have changed as thecampuses and student focus have changed. The following paragraphs describe this change andPNW’s plans to keep senior capstone projects relevant through 2030 [11].Organization of Senior Design courseEngineering Technology programs have been in place at Purdue University Northwest since the1960s. As soon as Bachelor of Science Degrees in Engineering Technology became available,senior capstone courses were part of the curriculum. Initially at PNW, these courses wereinformal, often did not meet on a regular class schedule and consisted of a project at the student’splace of work loosely supervised by a faculty member. While this was an informal process, itwas typically successful because of the industrial basis for the
Paper ID #23264A Model for Aligning Engineering Technology Curriculum with IndustryNeedsDr. David I. Spang, Rowan College at Burlington County Dr. David Spang is the Sr. Vice President & Provost at Rowan College at Burlington County in Mt. Laurel, NJ. Prior to being named Sr. Vice President & Provost, Dr. Spang served as Interim President, Provost, Vice President of Academic Programs and as Dean of the Science, Mathematics, and Technology division. Dr. Spang holds a PhD degree in Materials Science and Engineering and a MBA degree, with a concentration in Innovation and Technology Management. Prior to joining
abilities that help them understand their opportunities and responsibilities as engineering students.Mr. Randy Hazael Anaya, University of Texas, El Paso Randy Anaya, Instructional Technologist at the University of Texas at El Paso. Received a BFA in Graphic Design with a minor in Multimedia design from the Universidad Aut´onoma de Ciudad Juarez, Mexico. Received a BA in Media Advertising at UTEP and is currently enrolled as a Master of Interdisciplinary Studies with an emphasis on the use of art and technology in teaching and learning. Randy works on re- search and development of applying the creative process to workshops, trainings and student engagement. Currently doing extensive research and deployment of emerging
. They feltthis was rewarding in itself. Typical technology classes provide little opportunity for students todeviate from set ways of approaching a solution to a problem. Although the students sometimesmade mistakes in the co-lab project, they understood first-hand what the problem was and wereable to devise a better course of action.2. the emergence of their own abilities for self-reliance and self-direction.The projects are only overseen by the faculty, the path to the solution is completely up to thestudents, as are the techniques and planning to get to that solution. Most students began to workahead in their engineering classes because they could see a path to the problem solution from thebeginning instead of being lead there. One student
), neatness (5). mechanical design (25), software design (25), performance evaluation (10).N like M except weighted 50% midterm + 50% final, and components revalued: attendance (10), subjective contribution to group (20), regularity of design notebook entries (9), neatness (4), mechanical design (24), software design (24), performance evaluation (9).O rubric-matrix system, including informational-but-does-not-count spot-grading of first 8 notebook entries, peer review, and instructor- assigned group dynamics grades (100 points, first and second half; 35% midterm + 65% final).Design Notebook Format:hand handwritten notebooks assumed, no mention of typed or electronic content.P electronic format notebooks strongly
thinking instrument and an informal qualitative investigation to describethe way in which a group of undergraduate and graduate students approach the quantitativeinstrument. This was intended to be an exploratory study to probe some of the issues associatedwith critical thinking, rather than a true experimental design that would allow generalizability toa larger population. As such, it provides some insight into differences in the way the studentsthat were a part of this study think, and suggests a number of paths for further investigation.Theoretical FrameworkA number of definitions of critical thinking based on specific skills exist.13-16 While the list of
• understand the current trends and emerging technology within the biotechnology industry • identify where gaps exist between current technology needs and existing solutions • recognize existing gaps between biotechnology needs and current solutions as opportunities • explore potential solutions for new technology development to address identified needs within the biotechnology industry.The curriculum developed for the electronic portfolio also addressed the development ofkey attributes noted in a recent study by the National Academies. As stated in the recentreport from the National Academy of Engineering, entitled The Engineer of 2020,creativity and communication were cited as key attributes for engineers of 2020
Paper ID #34212Developing Two-Year College Student Engineering Technology Career Pro-filesDr. Kristin Kelly Frady, Clemson University Kristin Frady is an Assistant Professor at Clemson University jointly appointed between the Educational and Organizational Leadership Development and Engineering and Science Education Departments. Her research focuses on innovations in workforce and career development in educational, community, and industry contexts, specifically focusing on middle skills, STEM, and community college applications.Dr. Christy Brown, Clemson University Dr. Christy Brown is a Clinical Assistant Professor of
a well thought out, cogent business plan for commercializing innovative ideas, and 3)offer participants the opportunity to bring their ideas to the market place by being mentored andcritiqued by active venture capitalists, entrepreneurs, lawyers and others involved in high techcommercialization. The winners were awarded virtual client status in the incubator for sixmonths.Activities of the Emerging Business Network (EBN): This network, organized and conducted bythe UCF Technology Incubator, links together disparate academic, government and industryleaders to improve communications, pool resources, reduce redundancy, and in general foster techtransfer and innovation. It enables exchange of information concerning technology developmentand
paper shows thatusing art as a medium, students can interact with manufacturing technologies in a creative andengaging way.2.1 Project-Based Learning Established in 1965, Problem-Based Learning (PBL) emerged from the collaborative effortsof five faculty members in the Health Sciences, with the visionary leadership of founding DeanJohn Evans at McMaster University [19]. This innovative pedagogical approach places studentsat the center of their learning experience, fostering problem-solving skills within the context ofsmall group dynamics under the guidance of a tutor [19]. In the PBL framework, the learning process is intricately student-driven, with the tutorassuming a facilitating role. This methodology is rooted in an educational
Confidence Appropriateness Integration FrequencyRQ4a. Rationales for Integrating Digital TechnologiesAnalysis of interview data resulted in four emergent themes regarding the benefits of technologyuse within engineering instruction that teachers indicated encouraged their use. These themeswere that technology use 1) prepares students for the 21st Century; 2) increases studentengagement; 3) facilitates idea generation; and 4) facilitates sharing solutions. The followingquote exemplifies the first two themes: I think kids really enjoy using technology. I think it's one of the things that they think is engaging... I think, obviously it's important
AC 2007-119: ADDRESSING AND IMPLEMENTING A SAFETY PLAN FORINTERCOLLEGIATE DESIGN COMPETITIONSMichael Anderton, Middle Tennessee State University Michael Anderton is a second year Graduate Research Assistant at Middle Tennessee State University in Engineering Technology Department. He received his B.S. degree in Computer Engineering Technology at Middle Tennessee State University. Currently he is the manager of the Experimental Vehicles Program at MTSU.Saeed Foroudastan, Middle Tennessee State University Dr. Saeed D. Foroudastan is the Associate Dean of the College of Basic and Applied Sciences and Professor of Engineering Technology. He received his B.S. in Civil Engineering (1980), his
radiation leakage to theenvironment was minimal and no one was harmed by the incident, this disaster effectivelydoomed the nuclear industry in the United States.15 Figure 3. Nuclear Reactor Function. 16Although later reports placed blame on the operators involved, Perrow points out that the natureof this high risk technology is what really contributed to the near disaster. The lack oftransparency of the reactor system forced operators to rely on incorrect or incomplete informationin order to decide how to respond. The complexity of the control room instrumentation displaysallowed critical information to go unnoticed. Expectations about how to fix the problem were notbased on the correct mental models of the situation