documents, venues for field trips or people willing to share their knowledgeand experience with students. We feel the students and the faculty have benefitedtremendously and have had their traditional education paradigm shaken enough togenerate serious questions in their classrooms and in their lives. All faculty haveincorporated aspects of this course into their traditional class offerings. The anonymouscomments, called one-minute madness, are used by all each week as a way of monitoringclassroom learning. Faculty continue to use real-world based projects in the classroomand rely, as often as possible, on outside speakers for additional motivation.ConclusionsThe design and implementation of an interdisciplinary inquiry-based course has
new budgeting system made it attractive for us to change the freshmancurriculum in an attempt to stem this bleeding. As a part of the widespread redesign of Tulane’s“Introduction to Engineering” course (really the only contact with the engineering school duringthe students’ first semester on-campus), mini-labs designed for no more than three freshmenattendees per session were added to the requirements. An overview of all aspects of the changedfreshman course may be found elsewhere.[1]We had three specific goals for the freshmen involved with mini-labs. First, we wanted to get thefreshmen into the research labs in small, manageable groups (2-3 students per session) andprovide some type of hands-on experience for them; we had been told by
140 HSI STEM: Research Opportunities to Improve Retention and Increase the Pipeline to Graduate School Gino Galvez, Eric Marinez, and Alvaro Monge California State University, Long BeachAbstractThis paper describes the summer and winter research experience programs that are part of theHispanic Serving Institution (HSI) STEM grant awarded to the California State University LongBeach (CSULB). While the grant has several components, this paper’s focus is on The SummerBridge to the Beach and the Winter Research Experience programs. Both of these programsmatch
computer engineers in this important area of embedded system design using amulti-disciplinary approach. Electrical and computer engineering undergraduate programsrequire at least one embedded system design or programming course to train the futureworkforce in this important field.Many interesting embedded system teaching paradigms have been presented in [1-3]. In thispaper, we present our experience with teaching a microcontroller based system design course tothe junior undergraduate students. In this course, our focus mostly has been in teaching input /output interface design through proper programming techniques. We used the technique ofcompare and contrast of multiple solutions for such interface designs as outlined in the rest of thepaper. We
necessitating a seachange in classroom practice in North Carolina. By engaging in engineering design-basedintegration early and often in their educational careers, students will have a broader exposure tothe important role all the subjects they learn have in moving society forward. This will enable Page 23.367.14them to use their experience to choose coursework that will best prepare them for the workforceand postsecondary education. The state of North Carolina has implemented a program to includeall of the elements of STEM into every classroom, K-12.Engineering is… • Use of knowledge and experience to solve problems • Accessible to all
, a lower student-to-faculty ratio in the classroom. Three or sequence, the Augustinian Culture Seminars, which combines 2018built in 1974 and named after Robert E. White, a long- (anticipated) 69 44 four sections of laboratory classes and senior design have aspects of literature and writing classes in a small seminarserving chair of the department who was renowned for been offered to accommodate limitations of experimental
221. Power flow 4Total number of lessons 45A laboratory requirement emphasizes applications of these introductory topics in power andenergy. For the students who will take no other power and energy courses, this is normally theironly laboratory experience with voltage levels commonly considered to be dangerous. Everystudent continues to learn electrical safety with every lab exercise in this course. The first lab Page 9.945.4 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004, American Society for Engineering
research and experiments have been conducted to monitor plant growth inside apolydimethylsiloxane (PDMS) microfluidic chamber to capture high-resolution imaging over along period of time. Bascom et al., 2016 used microfluidics and high-resolution imaging for rootdevelopment of moss (hyscomitrella patens) to overcome the problem of imaging in solid media.Protonemata (moss filaments) with a thin film of agar medium was used for several days, and thenlive cell imaging was performed. The significance of this research was to understand the simplebody/root development and observe cellular process differences between mature chloronemal andcaulonemal cells at high resolution. The microfluidic devices were designed with a large centralport opening into a
Program Area Coordinator and Interim Division Director. With over 30 years of teaching experience in Electrical/Electronic Engineering and Engineering Technology, he currently teaches in the areas of networking, communication systems, biomedical instrumentation, digital signal processing, and analog and digital electronics. He has worked in industry in the areas of telephony, networking, switching and transmission systems, and RF and MMIC circuits and system design. Dr. Asgill also has an MBA in Entrepreneurial Management from Florida State University. He has served on the board of the Tau Alpha Pi (TAP) National ET Honors Society since 2012 (Chair 2012-2014). He is a Senior Member of the IEEE, a Member of the ASEE
-shelf kit developed around a BeagleBone Green microcontroller with connected sensorsand communication components. The Internet of Things (IoT)-based kits have been utilized tofacilitate practical hardware experiences for remote student learning.In this research we are currently concentrating on two research questions: Can transfer oflearning be successfully achieved in remote hands-on engaged student learning (ESL) scenarios?and How well do online tutorials contribute to hands-on ESL, when coupled with physicalhardware accessible at home? Preliminary assessment demonstrates that students benefit fromthe access to IoT-based course materials and many students incorporate IoT-based aspects intotheir senior design capstone
Broihan at Unison Solutions LLC; and Alan Gilgenbach, Director of InternetApplication Technology at Engage Networks, Inc. for their ongoing work on this project.Bibliography1 Glenn Wrate, Michael Swedish, Frederik Betz, Justin Reese, Chad Weis, Lee Greguske, “Design,Construction, and Commissioning of a 60-kW Microturbine Demonstration Facility”, Proceedings of the2003 American Society for Engineering Education Annual Conference and Exposition, Session xx332 Ngo Dinh Thinh, Andrew Banta, “A Student Designed Instructional Cogeneration Laboratory”,Proceedings of the 1996 American Society for Engineering Education Annual Conference and Exposition,Session 26333 Glenn Wrate, “Focus on Energy – Wisconsin’s Initiative to Reduce Industrial Energy
. He earned his BS in Electronics Engineering Technology and his MS in Technology at Western Carolina University. Page 14.41.1© American Society for Engineering Education, 2009 A Laser Micro-Machining DOE to Investigate Material Removal VolumesAbstractThis paper presents the results and lessons learned from a design of experiments (DOE),developed to better understand the factors that affect volume of material removed (MRR) duringa laser micro-machining process. The Oxford Laser micro-machining center was brought intothe Engineering & Technology Department’s laboratory to be used for
Bryan ISD PSJA ISD Ave teacher salary (%) Aldine ISD 0 50 100 150 200 % Relative (100 = Texas' average) Fig. 1. Comparison of ISDs near TAMU [2]The program aimed to recruit 10 in-service teachers and 2 pre-service teachers each time for 3summers. The 6-week program was originally divided into 3 periods. The program providedhands-on laboratory activities to complement the theoretical sessions. 1) Weeks 1, 2: Program covered orientation, lab safety, and
replaced, as of fall 1997, its 4 credit, 6 hourmicroprocessor lecture/lab with CSC 462/ENS 462, the 4 credit, 6 hour microprocessorlecture/lab of the Computer Science and Engineering Science B. S. programs. As a second step,beginning in the spring of 1998, the 3 credit/3 hour digital circuits course offered for ElectricalEngineering Technology students will be replaced by the 4 credit, 4 hour ComputerScience/Engineering Science digital lecture course. We will continue to require technologystudents to take the 1 credit, 3 hour digital technology lab with our experiments. The digitaltechnology lab focuses on reinforcing the theory whereas the Computer Science/EngineeringScience digital lab focuses on digital design. The department felt that
Adrienne Minerick is the Associate Dean for Research & Innovation in the College of Engineering and Assistant to the Provost for Faculty Development at Michigan Tech. She received her M.S. and Ph.D. from the University of Notre Dame and B.S. from Michigan Tech. Adrienne’s research interests include elec- trokinetics, predominantly dielectrophoretic characterizations of cells, and the development of biomedical microdevices. She earned a NSF CAREER award and was nominated for Michigan Professor of the Year in 2014. Research within her Medical micro-Device Engineering Research Laboratory (M.D. – ERL) also inspires the development of Desktop Experiment Modules (DEMos) for use in chemical engineer- ing classrooms or as
”, Chemical Engineering Education, 34 (1), 26-39, 2000.[3.] P. R. Piergiovanni, “Laboratory experiment: Pumping power law fluid”, Chemical Engineering Education, 51 (2), 53-60, 2017.[4.] J. VanAntwerp, A. Sykes, and A.X. Si, “Noniterative design of multiple effect evaporators using Excel add-ins”, in ASEE Annual Conference, June 14-17, 2009, Austin, TX.[5.] R. Hembree, “Correlates, Causes, Effects, and Treatment of Test Anxiety”, Review of Educational Research, 58 (1) 47-77, 1988.[6.] D.E. Damer, and L.T. Melendres, (2011). “Tackling Test Anxiety”: A Group for College Students, The Journal for Specialists in Group Work, 36 (3) 2011. Available: https://doi.org/10.1080/01933922.2011.586016. Accessed 23 January 2018.
American National Standards Institute (ANSI) established a Committee on Education (CoE) with one of its charges to assist engineering and technology programs in standards education. This effort built on the ABET requirement for engineering major design experience “incorporating appropriate engineering standards and multiple realist constraints.” The purpose of this paper is to provide a report and update of the ANSI CoE’s activities and plans for standards education and outreach to universities and suggest ways that faculty members can become more involved in and benefit from this effort. Key words: accreditation, design, engineering standardsIntroductionThe ABET Criteria for
populations, many studies fail to disaggregatethe experiences of individuals from URGs. Further, if makerspaces represent an avenue of hopefor fostering a generation of makers and innovative thinkers prepared to address the needs andchallenges of our society, it is quite plausible that without careful attention we could be buildinganother exclusionary system through makerspaces, grounded in the acceptance of Caucasian,male experiences and perceptions as the status quo. As making could potentially impactacademic progression, through early exposure and opportunities to develop confidence throughbuilding, design, iteration and community, it is critical that we understand how all students,especially those from underrepresented groups, come to affiliate
curriculum is designed to train studentsin the fundamentals of electronics applications via hands-on experimentation in a varietyof laboratory settings. Career opportunities for the graduates include positions incomputer maintenance/repair, design/testing, instrumentation, telephone companies andother companies that use electronic or manufacture electronic equipment. The students of the two programs come from diverse backgrounds with Page 8.1079.2significant difference in academic and industrial experiences and different careerobjectives. It is the purpose of this study to share our experience and approach in teachingthe two different groups of
circuits courses.In the original sequence of courses, the two courses had a total of approximately 12 laboratoryexperiments and one project. In the modified linear circuits sequence, there was a strongeremphasis on laboratory experience, project work, and open-ended design. There was also anincreased use of pre- and post-lab simulation. In the second linear circuits course, an activelearning model was also employed to improve learning by allowing students to practice moreproblem solving at their own pace10,11. The students met with their professors twice a week for 2½ hours for lecture, recitation, problem and/or laboratory work. The lectures were typically abrief introduction to theory followed by one or two example problems. The students used
a traditional way of three hours of lecturing and three hours of laboratory each week. In thiscourse, students learn the general concept of measurement systems, virtual instrumentation usingLabVIEW, sensors, analog to digital converter, digital to analog converter, sampling theoremand aliasing, digital filter design and analysis, and signal conditioning circuits. There aretypically seven laboratory exercises and a course project, where some kind of LabVIEW ormicrocontroller based measurement system is designed, fabricated, and tested. At the completionof this course, students are expected to be able to design a data acquisition system involvingsensors, LabVIEW, microcontroller programing, and printed circuit board design and
students fromvarious disciplines, need the support and guidance of one or more faculty advisors. Dependingon the project, the faculty advisor may serve as the lead in project orchestration or in a morelimited role of as an equal (yet more experienced) team member. The value of these projects tothe learning experience of the students involved can be significant as well as life-affecting. Page 12.949.2However, the formulation of appropriate projects as well as designing and implementingsolutions in an international context, especially in low-income nations, poses several uniquechallenges.This paper presents some of the lessons learned in developing
Engineering for last seventeen years. His research interests include Environmental and Surface Chemistry, Catalysis, Advanced Materials, Biomedical Research, Capillary Electrophoresis, Advanced Electrochemistry and Sensors.Jewel Gomes, Lamar University Dr. Gomes currently serves as Postdoctoral Researcher at the Department of Chemical Engineering of Lamar University under Dr. Cocke. His research interests are Atmospheric Chemistry, Matrix Isolation Spectroscopy, Gaussian Simulation, Wastewater Management, Materials Characterization, and Electrochemistry. He is also actively involved with Problem Based Learning (PBL) laboratory of Lamar.Hector Casillas, Lamar University Mr. Moreno is currently
-planwriting may be, we believe that it is a limited view of entrepreneurship, particularly for ourengineering and computer science students1. The competition focuses attention on financial andmarketing issues after the product has been designed. A more realistic perspective, and one thatappears to be of greater interest to the engineering students, is to design a product from scratchwhile working under marketing and financial constraints, working with customers to understandboth their needs and the conditions under which the product will be used, understanding theengineering and production constraints induced by a manufacturing plant, and so forth. Inaddition, the students gain experience with a multidisciplinary team, where engineering,computer
there is a means of validation, often demonstrated via aphysical model. For instance, in a recent offering of the materials course, students used amodified version of ACI’s Egg Protection Device Competition6 as motivation for the courseproject. The essence of the project was to design, fabricate, and test the highest-impact-loadresistant plain or reinforced concrete device made of concrete thereby safely and economicallyprotect an egg. Students made choices about admixtures, reinforcement, pre- or post-tensioning,and received bonuses for creative uses of recycled materials.Culminating Engineering ExperienceThe culminating engineering design experience occurs in a two-course, two-semester sequence
reinforced though homework assignments and simulation tasking inmost laboratory sessions. Simulation software adapted to specific disciplines, for examplePspice for EETs and Working Model or CADD software for METs, is commonly used as adesign aid in evaluating various design alternatives. The intent of using simulation software inENTC 395 is to foster a better understanding of dynamic processes and their relation tounderlying mathematical and physical processes. Therefore, the software chosen for ENTC 395is more generic and is tightly coupled to the underlying physical laws governing the response ofdynamic systems. SIMULINKs ability to graphically model the governing equations of a broadrange of dynamic systems problems coupled with its intuitive
. Tarrant, "Drucker: The Man Who Invented the Corporate Society", p. 257, Cahners Books, Inc., Boston, 1976.4. W. Bennis, "An Invented Life: Reflections on Leadership and Change", p. 75, Addison-Wesley Publishing Co., Reading, MA, 1993.5. T. S. Robertson, "You Need Rapid Market Penetration", CHEMTECH, August 1994, pp. 53-60.WILLIAM S. SPURGEON has a B.S. (Chemistry) from the University of Illinois, a Ph.D. (Physical Chemistry)from the University of Michigan. He has worked for Texaco, University of Cincinnati, American FluresitCompany, G.E (jet engines), Bendix Research Laboratories, National Science Foundation, and The University ofMichigan-Dearborn. He is a Colonel in the U.S. Army Reserve and has 40 years of managerial experience
engineeringstudents with active, hands-on learning opportunities to enrich their education and better preparethem for their chosen careers (1-3). Chemical engineering is a multidisciplinary field of studywith a large depth and breadth of material to cover in just four short years, so learning should beboth efficient and reinforcing of basic concepts to maintain student retention and success. To better facilitate better learning outcomes in our current NSF sponsored work, our teamdeveloped several ultra-low-cost desktop learning modules (LCDLMs) which can serve as a full,unit operations experiment without need for a full laboratory budget and set up to facilitate (4-6).The more recent kits are on the order of 10” x 4” x 1” (1) meaning they can be used
advance ofassessment. For these reasons, designing the first few assessment tables took time, attention, andmuch revision, but in the end, Table 1 was designed as the assessment table for the assignmentpresented in Figure 2. From our experience in designing assessment tables that worked well withthe assignments, we recommend that instructors actually sketch limited expectations of whatfindings they expect in the final document and go from there. Once the expectations are stated,more specific guidelines may or may not be required, but explicitly stating these expectations forthe students greatly reduced both our own subjectivity in evaluation and reduced the students’frustration in losing points for something they had not realized was important
, pp. 223-231.12. Sheppard, S.D., and R. Jenison, “Freshmen Engineering Design Experiences: An Organizational Framework,” International Journal of Engineering Education, Vol. 13, No. 3, 1997, pp. 190-197.13. Sheppard, S.D., R. Jenison, A. Agogino, M. Brereton, L. Bucciarelli, J. Dally, J. Demel, C. Dym, D. Evans, R. Faste, M. Henderson, P. Minderman, J. Mitchell, A. Oladipupo, M. Piket-May, R. Quinn, T. Regan and J. Wujek, “Examples of Freshman Design Education,” International Journal of Engineering Education, Vol. 13, No. 4, 1997, pp. 248–261.14. Rabasca, K.L, Hodgkin, B., and Ellis, J., "Using Freshman Design to Introduce Multiple EC2000 Criteria, Proceedings, 2002 Frontiers in Education Conference, http://fie.engrng.pitt.edu