AssistantsAbstract Although motivation in the classroom is often neglected in graduate student training,most instructors and TAs intuitively understand that motivation is critical for effective learning.These intuitions are corroborated by the research on motivation and learning that consistentlyshows that students do not learn well unless they are motivated to learn. In this paper, we present the basics of motivation theories, their impact on studentlearning and their implications for teaching engineering. It is a primer of motivation theories andhow they can be used to inform and direct TAs work with engineering students. This primer wasdeveloped from the perspectives of a researcher of the preparation of future faculty and adeveloper of
effort. It shouldbe an ongoing process integrated into the application development lifecycle. Security, like otherWeb application components, is best managed if planned at the initial phase of the applicationlifecycle. This strategy will help project managers and security professionals establish securitypolicies, conduct risk assessment, and address potential risks in a cost-effective manner. It Page 10.23.1ensures system architects design secure application infrastructure. It makes sure application Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005
, free of charge forstudents. Best practices of schematic design and board design were shared with the students asthey were encouraged to design PCBs for previous circuits that they had built.Intro to Python (Hardware and Software) LessonsThe first week of material consisted of a combination of the basics of Python programming andcircuits using CircuitPython and the Metro M0 Express microcontroller board. The programmingconcepts introduced included variables, operators, functions, conditional statements, loops, lists,and dictionaries. The students built upon these programming concepts and Python skills duringthe Machine Learning week. The circuit concepts included microcontroller pins, electroniccomponents, analog vs. digital, Ohm's Law with the
university that is focused on supporting the 21st century student demographic he continues to innovate and research on how we can design new methods of learning to educate both our students and communities on how STEM and STEAM make up a large part of that vision and our future.Dr. Peter Golding, University of Texas, El Paso Professor of Engineering Education and Leadership, Undergraduate Program Director in the Department of Engineering and Leadership at UTEP, Director of the Center for Research in Engineering & Technology Education in the College of Engineering, and Provost Faculty Fellow in the Center for Faculty Leadership and Development at The University of Texas at El Paso.Mr. Pedro Arturo Espinoza, University
efficiencies and cost savings achievedthrough online learning will more likely impact lecture-style courses than smaller courses. Researchers and educators have sought to determine online learning’s effectiveness in amultitude of studies. The United States Department of Education considered the results of manyyears’ worth of data to identify if any overall trends emerged. The researchers ultimately drewtwo major conclusions. First, they found that “online delivery produced a statistically significant,small-to-moderate-size advantage for learning” [5, pp. 30-31]. This conclusion stands in contrastto the commonly held belief of faculty that online learning leads to decreased quality ofeducation. The second finding was that “blended course design
Sp10 Sp11 Sp12Figure 5 – Performance on the assembly language concepts for three "traditional" semesters and three "flipped" semesters.In summary, in terms of lower order learning, our research is congruent with the results of othersthat a "flipped" approach does not necessarily improve student performance for lower-orderlearning outcomes. At that same time, a "flipped" approach does not decrease performance forthese outcomes either, suggesting it is a viable alternative to a traditional model.We now turn our attention to the impact of the flipped classroom on higher-order learningoutcomes. Our original hypothesis in designing our "flip" was increased class time and student-instructor interaction
usuallyinvolves group work. Many of the engineering projects in the paper were group work. Engineersare now, more than ever, expected to collaborate and cooperate with their peers [17]. Futuredirections for integrating PBL in these courses include adding one more project that allowsstudents to design from scratch in Logic Circuits, and assessing whether the students who havebenefited from PBL will continue to be successful in their future courses.References:[1] Shekar, A. Project based Learning in Engineering Design Education: Sharing Best Practices, ASEE 120thAnnual Conference and Exposition, paper ID 10806, Indianapolis, IN, 2014.[2] Pang, J. Active Learning in the Introduction to Digital Logic Design Laboratory Course. 2015 ASEE Zone IIIConference
University. His research in- terests include low-power, reliable, and high-performance circuit design for nano-scale technologies. He has many publications in journals and conferences and 5 U.S. patents. He was a recipient of the 2008 SRC Inventor Recognition Award, the 2006 IEEE Circuits and Systems Society VLSI Transactions Best Paper Award, 2005 SRC Technical Excellence Award, and the Best Paper Award of the 2004 International Con- ference on Computer Design. He is a technical program committee member of International Symposium on Low Power Electronics Design and International Symposium on Quality Electronics Design.Dr. Hao Jiang, San Francisco State University Hao Jiang received the B.S. degree in materials sciences
educate a large enough share of their URG students in engineering.Strategies that have been employed to increase the success of DEI efforts have been many andvaried. Research has shown that where there is community and belonging, the successes arelarger. For instance, a study found there to be a positive correlation between the diversity offaculty to that of the diversity and success of students [37]. Training the professorate in DEI hasbeen a strategy that has increased significantly in recent years, recognizing that the majority offaculty lacked the tools to understand and implement best practices. Training materials, courses,workshops, and experiences that reward individuals and programs for increasing their knowledgeand skills in DEI have
work is carried out in teams: whereresearch, education and communication are carried out in integrated interaction with industry. Page 10.850.1“Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering Education”There will always be an academic debate to whether product development and design should betaught primarily by establishing a foundation of theory, or by engaging students in looselysupervised practice. For a broader activity of product design and development, both approaches arerejected at Aalborg
requisite engineering design and analytical knowledge andskills? How are clinical experiences for technology teachers best configured? What are theeffective means for delivering ongoing professional development for teachers?Research Theme 3 – Assessment and EvaluationIn order to know what students have learned as a result of instruction, and to learn about programquality and effectiveness, we need to know more about assessment and evaluation. Thus, thethird NCETE research theme is to conduct research regarding assessment and evaluation. Thisincludes assessing and evaluating Center activities and will include research questions such as:What are the effective assessment and evaluation strategies of learning and teaching engineeringconcepts to K-12
havingexcellent communication and empathy skills. However, because these Board members are allexecutives at prominent engineering firms that employ many of our graduates, it also signaled toour students that the information covered in our training sessions really is of importance to theirfuture employers. For the full explanation of training activities and supporting research, see ourrelated paper, Cognitive Empathy – Making a Better Designer and More Inclusive MechanicalEngineering [7].We have requested a modest increase to the course fees for the courses in which our training istaking place so that we do not have depend on outside funds to continue to hold the training eachyear and to institutionalize the program. We also plan to revise the catalog
regarding graduates’ knowledge base and qualifications that industrial employers look fortoday as well as what is missed in graduates’ knowledge base, which points out to the gaps in theFaculty curriculum. In addition, alumni provided a fresh perspective on how to approachengineering curriculum enhancement in light of expectations of contemporary employers. Thesefindings are important to consider when developing and/or re-designing engineering designcurriculum to account for industrial demands as of today.Introduction This paper is one in a series from an empirical research study and regards engineeringeducation and design theory, methodology and practical applications. The new transdisciplinarynature of industrial product design requires new
form of summer bridge programming available for engineering students,indicating that many institutions recognize the importance of summer bridge programs in theeffort to increase retention. The development of the University of Portland’s summer bridge wasinfluenced by the best practices that have arisen out of other institutions’ summer bridgeprograms. Two programs that were particularly important in the designing of the summerprogram were Oregon State University’s LSAMP Summer Scholar Program9 and University ofSouthern California’s Discover Engineering course14. Page 26.300.4OSU’s program is a 3-week program for underrepresented STEM students
reviewed journal and conference publications. Along with his students and colleagues, he has made over 230 technical presentations at international, national, and regional conferences and at universities. One of Professor Nambisan’s passions is the development of the future workforce, including efforts at the pre-college level. He enjoys working with students. For his contributions as an educator, researcher, and leader, Professor Nambisan has received several awards and honors. Among the awards and honors he has received is a proclamation by the Governor of Nevada designating January 31, 2007 as the ”Professor Shashi Nambisan Day” in recognition of his leadership role in and contributions to enhancing transportation
availability precludeoffering ME Lab each semester. Another concern is that the students’ major lab experienceoccurs in what is usually the last semester of their academic career. Recently, Baylor Universityhas increased its emphasis on faculty research. With the current curriculum, students are nottruly prepared to support the research initiatives until they graduate. This has prompted a seriesof discussions about shifting the lab experience to the sophomore year. Students would then bebetter prepared for future laboratory and research experiences. A one credit hour fluids/thermolab would occur in the fall of the senior year leaving the spring semester of the senior year totake the capstone design course. Schedule changes are being considered and
, and a new student research group was formed.This paper describes the exercises and demonstrations that have been used in our IntroductoryMaterials Engineering course that have stimulated enthusiasm for materials engineering and havecontributed to measurable enhancements to the course. The paper also describes those activitiesthat might be transferred to other types of institutions to accomplish materials awareness andexcitement. Specific materials science properties as they relate to stringed instrument design aregiven so that others adapt them for their own use. In addition, this paper contains acomprehensive literature search of the materials science aspect of musical instrument design tomake it easier for others to adapt the ideas
work.The students will complete many of the requirements for designing and developing models andexperiment, using the scientific method, and presenting their research to their peers andteachers. Additionally, they will be forced to determine the efficacy of different approaches aswell as use cost and time analysis as decision making tools. In learning about the processes usedin making MEMS, the students will also have a chance to see the environmental impact of thefabrication techniques. Overall, in a short course, the student not only achieves many of thestandards expected in their grade level, they get a chance to see the relevance of their work inclass to the “real world”.Although they have frequently had advanced coursework in the sciences
in Durham, North Carolina. He is a member of ASEE and IEEE.Prof. Stu Thompson, Bucknell University Stu is an associate professor and chair of the department of Electrical and Computer Engineering at Buck- nell University, in Lewisburg, PA. His teaching responsibilities typically include digital design, computer- related electives, and engineering design. His research focus is on the application of mobile computing technology to interesting problems. My broadly he is interested in the continued evolution of engineering education and how the experience can help create graduates who will go on to make substantial change in the world. ©American Society for Engineering Education, 2023Work in
of the first of several new ME-Practice courses in the revised Mechanical Engineering curriculum. Page 26.1663.1 c American Society for Engineering Education, 2015 Using Direct Information Literacy Assessment to Improve Mechanical Engineering Student Learning A Report on Rubric Analysis of Student Research Assignments Abstract This quasiexperimental study examined the effectiveness of library instruction in a junior level mechanical engineering design process course during the Spring 2013 and Fall 2013 semesters. In the Spring of 2013 librarians delivered an
adiscussion of best practices for NTT faculty career development and promotion in Fall2011. Promotional policies that have already been adopted at the University level will bediscussed, including those related to letters of support, expectations for national and internationalvisibility, and department voting. Future work at NCSU will focus on NTT faculty careerenrichment in addition to the development of more standard procedures for recognizing andevaluating the external impact of research, teaching, and outreach efforts of NTT faculty.Experiences of Women Faculty in STEMThere has been a renewed focus on exploring gender differences in academia. While increases infemale graduate students have occurred at the doctorate level, this has not translated
engineering.Intended OutcomesCalifornia Polytechnic State University has an earned reputation as a proponent of the hands-on,laboratory-based, learn-by-doing approach to education. We have also won a reputation as acollege whose students are steeped in open-ended problems and underpinned by anunderstanding of design and the process of design. As part of our newly-created BiomedicalEngineering Department, it was our goal to create a flexible, modular, expandable laboratory thatwould provide support across the entire spectrum from early design exposure for students toadvanced industry-sponsored applied research for teams of faculty, graduate students, andundergraduates.The rapid pace of advanced manufacturing technology has resulted in highly
engineering education as a complex system, and the design and evaluation of next generation learning environments. This research is intrinsically multidisciplinary and draws on methodologies from the humanities, social and behavioral sciences and involves collaboration with anthropologists, learning scientists, librarians, designers, and architects.Dr. Mary K. Pilotte, Purdue University, West Lafayette Mary Pilotte is Associate Professor of Engineering Practice in the School of Engineering Education at Purdue University, West Lafayette, Indiana. She is an instructor for Multidisciplinary engineering course- work, and is Director of the undergraduate Interdisciplinary Engineering Studies and Multidisciplinary Engineering
Pro- tocols), SDR-based Ad Hoc Space Networks (Positioning and Routing Protocols), Internet of Things, Machine Learning and STEM Education. Currently, Dr. Pineda-Brise˜no in member of the National Sys- tem for Researchers (SNI) by the CONACyT in Mexico since 2017.Dr. Jesus A Gonzalez-Rodriguez, University of Texas Rio Grande Valley Dr. Jesus Gonzalez is currently a lecturer in the Department of Manufacturing and Industrial Engineering of the College of Engineering and Computer Science. He holds a PhD from The University of Sheffield in United Kingdom in Materials Science and Engineering. During the PhD, he received the Foster Research Prize given to the best PhD thesis related to glass technology. His research
graduates are very well prepared for the workplace, both technically andprofessionally, as has been documented from employer and graduate surveys. The College ofEngineering recently conducted a “Life After UMaine” survey of 2007-2008 graduates. Ofgraduates of all the programs in the College, MET graduates reported being the best prepared foremployment. Eleven of twenty-one (52%) MET graduates responded to the survey. Ten wereemployed full-time in the career field. Nine responded that they were “Very Well” prepared foremployment, and one responded being “Moderately Well” prepared for employment.To support this preparation for employment I use the following framework to manage myclassroom environment: “Having technical skills is not enough in the
outcomes. She is currently serving as Co-PI for several funded projects examining the impact of various engineering education models on student persistence, intentions, attitudes, etc.Joseph H Holles, University of WyomingJingfang Ren, Michigan Technological University Jingfang Ren’ is currently an Assistant Professor of Rhetoric and Technical Communication in the De- partment of Humanities at Michigan Tech. Her research interests include technical communication theory and practice, rhetorical theory, visual rhetoric, research design, and intercultural and international com- munication.Ted W Lockhart, Michigan Technological University Adjunct Professor of Philosophy, Michigan Technological University, 2010-present
,increasing research participation, increasing student retention and increasing student graduationrate have been taken into consideration. For example, Yoder [8] identified summer bridgeprograms as a best practice for retention in engineering. Pickering-Reyna [9] also showed thatstudents who participate in summer bridge programs are more likely to be retained in their major.Tomasko et al. [10] found that URMs who attended the summer bridge program had higher third-year retention rates in their STEM discipline in comparison with the general population of studentsadmitted to STEM majors at the same university. Strayhorn [11] reported that these programs wereespecially beneficial for low-income, academically underprepared students. Moreover, Brown [12
flexibility, and 4) increasedinteraction and engagement. A major challenge for the field of engineering stems from theincorporation of laboratory and design components critical to post-graduation student performancein the workforce. [1]There are three main types of student laboratories 1) on-site laboratories, 2) virtual laboratories,and 3) remote laboratories. On-site laboratories were most common pre-COVID, but are currentlyproblematic because of health concerns. Virtual laboratories, by contrast, are safe, but have manypedagogical drawbacks. Remote laboratories provide the best of both worlds offering students asafe and hands-on experience. In fact, literature shows that students can favor these remote labexperiences over even on-site laboratories
and speaking skills. When Dr. Foroudastan first arrived in the United States to Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Educationstudy engineering, he found that he was perfectly capable of fulfilling the technicalaspects of his coursework including math and computer skills. However, when it came towriting papers or speaking in front of a class, he noticed himself struggling. He foundthis to be especially true when having to lecture to undergraduate classes while workingon his Ph.D. Soon he realized the best way to overcome his anxieties in these areas wasto practice writing and speaking for a real and
management, information management and security, object including oriented programming, computer architecture, systems architecture, operating systems, and networking. 10. Demonstrate the ability to analyze computing and information security requirements and risks, and apply the appropriate tools and techniques to protect organizational data assets in an ethically responsible manner. 11. Demonstrate the ability to apply best practices and standards for information technology applications. 12. Demonstrate the ability to assist in the creation and execution of an effective project plan. 13. Demonstrate a commitment to professional development and to continue to engage in lifelong learning.Capstone Course