other engineering schools at lowcost.3- USE of PEDAGOGICAL THEORY The authors believe in the model of hands-on laboratories and computer simulation as thebest suited method to attain the educational objectives and outcomes.Traditional pedagogical methods in engineering often favor lecture based teaching but theauthors believe in the model of hands-on laboratories and computer simulation as the best suitedmethod to attain the educational objectives and outcomes. This thinking and practice issupported by research that has focused on a hands-on, active learning approach to teachingengineering concepts [4, 5]. Active learning has long been believed to be an ideal form ofinstruction compared to a more passive approach to teaching particularly
department’s undergraduate Program Director and Chair of its Curriculum and Assessment Committee. c American Society for Engineering Education, 2016 Enhanced Radio Lab Experience Using ePortfoliosAbstractHistorically, the technical writing portion of our electrical engineering program’s required corecourse RF Systems Laboratory has been fulfilled using bi-weekly memos. Now, however, the labutilizes eportfolios to fulfill the technical writing requirement. The primary goal of the decisionto switch from memos to eportfolios was to improve the learning outcomes of the students byencouraging them to use reflective writing to reinforce what they learned in the lab. Additionally,the eportfolio format allows
Paper ID #14778Planning and Assessment of a Workshop on Undergraduate Education in Bio-metric SystemsDr. Ravi P. Ramachandran, Rowan University Ravi P. Ramachandran received the B. Eng degree (with great distinction) from Concordia University in 1984, the M. Eng degree from McGill University in 1986 and the Ph.D. degree from McGill University in 1990. From October 1990 to December 1992, he worked at the Speech Research Department at AT&T Bell Laboratories. From January 1993 to August 1997, he was a Research Assistant Professor at Rutgers University. He was also a Senior Speech Scientist at T-Netix from July 1996 to
engineering for sensing applications.Dr. Pamela Obiomon, Prairie View A&M University Pamela Obiomon received a BS degree in electrical engineering from the University of Texas, Arlington TX, in 1991, a MS in engineering degree from Prairie View A&M University in 1993, and a PhD degree in electrical engineering from Texas A&M University in 2003. From 1998 to 1999, Dr. Obiomon served as an adjunct faculty at the Rochester Institute of Technology, in the Department of Micro-electronics in Rochester, New York. From 2000-2002, she was the lead data processing system hardware engineer in the Shuttle Avionics Integration Laboratory at the Johnson Space Center in Houston, TX. In 2003, she joined the Department of
use of flow control in aggressive engine inlet ducts. After graduation, Dr. Vaccaro held a lead engineering position with General Electric Aviation in Lynn, Massachusetts. There, he designed the fan and compressor sections of aircraft engines. He frequently returns to General Electric Aviation as a consultant. Currently, he is an Assistant Professor of Mechanical Engineering at Hofstra University in Hempstead, New York where he teaches Fluid Mechanics, Com- pressible Fluid Mechanics, Heat Transfer, Heat Transfer Laboratory, Aerodynamics, Measurements and Instrumentation Laboratory, and Senior Design in addition to conducting experimental aerodynamics un- dergraduate research projects.Dr. Kevin C. Craig, Hofstra
Virginia. He received the PhD degree in Physics from the State University of New York at Binghamton in 1980 and joined Bell Laboratories that same year. At Bell Laboratories he was Director of Advanced Lithography Research in the Physical Sciences Research Division. He joined the ECE department at University of Virginia in 2001 and was appointed Department Chair in 2003 and served until 2012 in that capacity. His research interests include nanofabrication, nanoelectronic devices and Engineering Education. c American Society for Engineering Education, 2016 Incorporating Studio Techniques with a Breadth-First Approach in Electrical and Computer Engineering EducationBackgroundThe
has been used for the on-linematerials development, implementation of the assessment tools to evaluate the students’progress, and students' perception of all three models.IntroductionWith a growing emphasis on student learning outcomes and assessment, faculty and educatorsconstantly seek ways to integrate theory and research in innovative course designmethodologies1-5. Critics of engineering education argue that educational programs focus toomuch on the transmittal of information through static lecture-discussion formats and routine useof outdated laboratory exercises6, 7. This educational approach often results in graduates, who donot have a full range of employable skills, such as, the ability to apply the knowledge skillfullyto problems
Paper ID #16051of the Central Information Technology Services (RUS) at the same time. Some of the main areas of herresearch are complex IT-systems (e.g. cloud computing, Internet of Things, green IT & ET, semanticweb services), robotics and automation (e.g. heterogeneous and cooperative robotics, cooperative agents,web services for robotics), traffic and mobility (autonomous and semi-autonomous traffic systems, inter-national logistics, car2car & car2X models) and virtual worlds for research alliances (e.g. virtual andremote laboratories, intelligent assistants, semantic coding of specialised information). Sabina Jeschkeis vice dean of the Faculty of Mechanical Engineering of the RWTH Aachen University, chairwoman ofthe board of
physics (1989), and the Ph.D. in electrical engineering (1993) from Texas A&M University. His areas of interest in research and education include product development, analog/RF electronics, instrumentation, and entrepreneurship.Mr. Dakotah M. Karrer, Texas A&M University Dakotah Karrer is a senior undergraduate student in the Electronics Systems Engineering Technology major within the Dwight Look College of Engineering at Texas A&M University. He also serves as the Mobile Integrated Solutions Laboratory (MISL) Manager and has been the hardware engineer for the STRATA-1 design team that developed flight hardware electronics for use on the International Space Station. Dakotah is pursuing a job in the private
graduate study in their chosen field.9 Other research has shown thatinteracting with graduate students in a laboratory setting can help undergraduate students seethemselves as future graduate students and increase their confidence in their ability to besuccessful as graduate students.10 REU programs are well represented across engineering fields,and in materials science and engineering have focused on topics such as nanotechnology andnanofibers11 and additive manufacturing12.In addition to supporting undergraduate students’ development as researchers, summer researchexperiences can also be an effective way of helping in-service teachers develop a betterunderstanding of research and willingness to incorporate open-ended research projects in
used to formfluid level measurement devices. Instrument performance was predicted from elementaryequations for the capacitive probe geometry, fluid properties, and 555 timer specifications. 4,5,6Student team designs were then tested using a laboratory vessel containing lightweight mineraloil. Data collected during testing was then used to create a calibration curve for each design. Oneyear later in a microcomputer interfacing course, the capacitive fluid level probes were againused by the same teams of students as the basis for an enhanced instrument design which nowadded an embedded microcontroller. The students incorporated the previous year’s test vesselcalibration data into their embedded software to provide a complete solution with a
Standards (NGSS). Itempowers students, and their teachers and communities, to create innovative solutions to apervasive environmental problem: stormwater. This has been achieved by actively engagingparticipants with STEM professionals in an inquiry and project based instructional environment.Using the latest sensor technology for data collection and computer modeling for data analysis,students address the widespread problem of stormwater management. During a 3-dayStormwater Institute at the University of Maine, the participants gain the knowledge of workingwith wireless sensors and laboratory systems to collect water measurements, includingtemperature, conductivity, pH, phosphorous, dissolved oxygen, and bacteria. The students thencan map water
. Astatke played a leading role in the development and implementation of the first completely online un- dergraduate ECE program in the State of Maryland. He has published over 50 papers and presented his research work at regional, national and international conferences. He also runs several exciting summer camps geared towards middle school, high school, and community college students to expose and increase their interest in pursuing Science Technology Engineering and Mathematics (STEM) fields. Dr. Astatke travels to Ethiopia every summer to provide training and guest lectures related to the use of the mobile laboratory technology and pedagogy to enhance the ECE curriculum at five different universities.Dr. Michael J
surveys,we are able to comprehensively analyze both the perceived impact of our camp from theattendee’s perspective. We also acknowledge and thank Microsoft and Facebook for theirgenerous financial support of this effort.IntroductionLast year, a local middle school teacher contacted our research laboratory to request acybersecurity awareness presentation to her computer class. With two groups of students in anelective course, the presentation was held twice. Between the two classes there was one girl inattendance. During the discussions following the presentation, both students and teachers had aninterest in cybersecurity, but felt they lacked sufficient training and suitable subject mattermaterials. In discussions with other local schools, and
periods were changed to include hands-on activities such ascompleting worksheets to assess lecture content knowledge, practice writing subroutines thatcould be used as part of the weekly lab assignment, or building circuits to interface externaldevices with a microcontroller. Each of the in-class activities was designed to measure studentunderstanding of course topics and to offload some of the laboratory work done during previoussemesters to the lecture period.This paper assesses the differences in student outcomes between the traditional and flippedformat of the course. Common final exam question responses from the traditional and flippedoffering are compared to showcase the differences in student comprehension of course topics.Student survey
Sparkfun Inventor Kits and peripheral sensors.The Cage is home to all of our hand tools (e.g., portable drills, Dremels, sanding equipment,wrenches) and several benchtop tools (e.g. belt sander, drill press), as well as prototyping space.The Universal VLS4.60 laser cutter lives in the Hack-A-Torium next to a fume hood, severallarge work tables, and a lot of project storage bins. The Pit has room for group work and a walllined with desktop computers, as well as two lounge areas for more casual collaborations. TheTest Lab houses our sensor inventory and two large tension testing rigs, and the MechanicalSystems Lab is home to three out of four of our laboratory courses. Finally, the Hive is primarilyused for teaching assistant (TA) office hours and
Biomedical, Industrial,Mechanical, and Software tracks. The course description states the following: “The student isintroduced to the fundamentals of engineering drawing. Topics include: three-view drawings,construction methods, CAD applications, graphical methods for engineering problem solving,three-dimensional modeling, and CAD data import/export/exchange.” The course is a 3 creditcourse with 2 lecture credits and 1 laboratory credit. Students attend two 50 minute lectures andone 2 and 1/2 hour laboratory each week. The prerequisite for the course is ENGR 1010 -Introduction to Engineering. In terms of the course objectives, after completing this course, thestudents will be able to: (i) understand basic concepts of engineering drawings and role
student at their convenience (an element of the Flipped classroom) thus freeingup class time for various Active Learning experiences including conceptual questions, Think-Pair-Share activities, Ranking tasks, individual and team quizzes, and collaborative problem solving.Project Based Learning (PBL) was used through two large team-based design projects undertakenduring a weekly laboratory session. A mixed-methods assessment strategy was employed toevaluate the success of these approaches. Quantitative data was obtained from final examperformance for both conceptual understanding and problem solving competency which wascompared directly to the same class taught in a traditional manner. Other quantitative andqualitative data, including student’s
experimental results to analytical or simulatedpredictions, satisfying a major learning objective. The higher sampling rate of the MuddLog16had the effect of allowing students to be less-attentive to the potential of aliasing; future versionsof the course should examine means to ensure students acquire and understand aliased data.IntroductionExperimental Engineering at Harvey Mudd College is an intense multi-faceted sophomore-level,semester-long course. The stated learning objectives for the course are: 1. Demonstrate hardware and equipment skills: a. Demonstrate the safe and proper use of basic laboratory equipment: e.g., digital multimeter (DMM), signal generator, oscilloscope, breadboard, and analog transducers
experience in which teachers fullyparticipate in a computer science or engineering laboratory research and engage in an inquiryfocused content-to-pedagogy teacher professional development workshop, buildingcurriculum from their lab research experience with foci on scientific experimentation andimproving students’ science achievement and literacy. The programs are aligned withCommon Core Math Standards and Next Generation Science Standards and addresses theresearch question: • What is the impact of an intensive research-based teacher professional development program on teacher and student performance?Fifty-three teachers and their 7,420 students have participated in the ACCESS 4 Teachers RETand our previous Societally Relevant Engineering
Computer Engineering Department HeadsAssociation, Mousavinezhad et al. started a workshop series for developing educational andresearch programs in a critical area of power and energy systems with the support of the NationalScience Foundation 3. Many recent efforts have been devoted to improve the teaching throughsimulation 4-7; nevertheless, few have been devoted to enhance hands-on skills. Recently Farhadiand Mohammed designed a Laboratory-Scale Hybrid DC power System to address that issue8.However, it requires tremendous effort from the instructors and a great amount of sourcefunding, which is hard to duplicate in most of the schools. In addition, the DC power system issparsely used in power industry as the AC power system is still dominant due
Professor in the School of Mechanical and Materials Engineering at Washington State University (WSU). He initiated the HYdrogen Properties for Energy Research (HY- PER) laboratory at WSU in 2010 with the mission to advance the Technology Readiness Level (TRL) of hydrogen systems. He received a B.S. degree in Mechanical Engineering from the University of Idaho in 2005 and a M.S. degree in 2007. His master’s thesis has been adopted as the foundation for hydrogen fuel- ing standards and custody exchange, in addition to winning the Western Association of Graduate Schools Distinguished Thesis Award for 2008. He completed his Ph.D. in the Cryogenic Engineering Laboratory at the University of Wisconsin-Madison in 2010 on the
Student - Developed test system, designed and fabricated custom components. • 32 Course Graduate Students - Gave feedback on the course content and delivery over 2 semesters.Course ObjectivesWe wanted to establish a course that starts by teaching the fundamentals of structural modeling,but leads the students quickly and directly to the laboratory. At the graduate level this validationstep is often excluded, so students end up with the skills to build complex models, but never to setup realistic experimental conditions and accurate data acquisition systems to test these models.Our goal was to provide the educational structure to teach the integration of the two disciplines,but to also take it a step further and have the exemplar
analytics (data-mining and reasoning) of practice-based andexperiential STEM. This data is used to create analytics support tools for teachers, learners andadministrators, providing frameworks for evidence-based curriculum design and learning systems.The PELARS project creates behavioral recording inputs, proving a new learning analytic that isscalable in application, and bridge qualitative and quantitative methods through reasoning andfeedback from input data. The project serves to better understand learners' knowledge in physicalactivities in laboratory and workshop environments, as well as informal learning scenarios.PELARS traces and helps assess learner progress through technology enhancement, in novel waysbuilding upon current research. The
EET programs across the country. The project also addressesthe need for CRTCs and provides curriculum and training opportunities for students from otherinstitutions, industry representatives, and displaced workers.The overall goal of the project is to help meet the nation’s forthcoming need for highly trainedIndustrial Robotics workers. Strategies include developing, testing, and disseminating anupdated, model curriculum, laboratory resources, and simulation software package suitable foruse in both 2- and 4-year EET programs. To complement this effort, outreach to K-12 studentsand teachers will work to enlarge the pipeline and diversity of students interested in careers inrobotics. Programs will also be offered to students at other
learning of mathematics. c American Society for Engineering Education, 2016 Hands-on Learning of Wireless Communication Principles Using Software Defined Radio Experiments and LabVIEW With the rapid proliferation of millions of smartphones, the adoption of the latest 4G LTEtechnology worldwide, and the emergence 5G broadband wireless technologies, wirelesscommunications have become an integral part of every person’s daily life and will continue to beas such in the foreseeable future. Due to this remarkable surge in wireless technologies, a strongneed for developing a flexible, hands-on laboratory platform to teach a wide variety of wirelesstechniques has emerged. Indeed, current educational
Paper ID #15580HYPOTHEkids Maker Lab: A Summer Program in Engineering Design forHigh School StudentsDr. Aaron Kyle, Columbia University Aaron Kyle, Ph.D., is Senior Lecturer in Biomedical Engineering at Columbia University. Dr. Kyle teaches undergraduate laboratory courses, bioinstrumentation and Senior Design. Senior Design is Dr. Kyle’s major teaching focus and he has worked diligently to continually enhance undergraduate design. He has taught or co-taught the BME Design class since January 2010. Dr. Kyle has spearheaded the incorporation of global health technologies into Senior Design, leading the development of
hasserved as an important tool along with our in-class course instruction and laboratory experiencefor the success of our students.In a recent paper, various synergies of converging ABET, ATMAE, and other accreditationprocesses were discussed5. Our intent is not to seek reaccreditation for our ECET program withATMAE but to explain how we used some of those practices and methods for ABETaccreditation. The use of internship workplace competencies for ETAC-ABET programoutcomes assessment was discussed in a recent paper6. We have been using our students’ co-opexperience as a tool for program assessment and continuous improvement in the past, and wewill discuss how that is incorporated into ABET assessment in this paper. The use of course-embedded
would not feel that the course content was going beyond what was appropriate for a 3 credit-hour course. 5. Recognizing that some students simply do not need to avail of problem-solving sessions or instructor assistance. 6. Motivating students to watch the videos, in an institutional culture where pre-lecture assigned readings (or assigned videos) are unusual.Choice of CourseMechanical Vibrations is a compulsory fourth year course taken by approximately 80Mechanical and 30 Ocean and Naval Architectural Engineering students in their sixth of eightacademic terms in a co-op program. Lecture slots were 9:00-10:15 Tuesdays and Thursdays,with no extra tutorial period. A laboratory slot was scheduled from 2:00-5:00 Tuesdays
experience through supplementalworkshops and seminars. Considering previous research, the Translational Application ofNanoscale Multiferroic Systems (TANMS) research center designed, implemented and assesseda comprehensive REU program to engage students in research during both the academic year andsummer months. TANMS’s REU is an eight-week research experience for undergraduates frommultiple 4-year universities and community colleges. The program components include researchin one of TANMS laboratories, seminars on ethics and diversity, workshops on entrepreneurship,and social events. These activities are woven into an experience to instill sixteen specific skillsthat were grouped into five core categories: I) communication (2 skills); II