effects on sensors. Dr. Holbert is a registered professional (nuclear) engineer. Keith is Senior Member of IEEE, and a member of the American Nuclear Society as well as the American Society for Engineering Education. He has published more than 200 journal articles and conference papers, two textbooks, and holds one patent. Keith is the Director of the Nuclear Power Generation Program at ASU. c American Society for Engineering Education, 2017 Comparison of Traditional Face-to-Face and Online Student Performance in Two Online-Delivered Engineering Technical Electives Keith E. Holbert School of
will summarize the results of the flipped classroom and its implementationusing Google Docs and interactive video for EE110.Grading results and course surveys were used to assess and improve the effectiveness of theflipped classroom over several course offerings. Various technologies include: (1) using worddocument with links to YouTube videos followed by with quiz questions in the first offering; (2)adding Google Docs (or Google Forms) with embedded YouTube Videos and quizzes in the nextclass session; and (3) including both Google Docs and interactive videos in the third. End-of-Course Surveys consistently show that the students enjoyed the weekly hands-on labs. After thethird class offering, an additional survey of student experience with
inserted intoTetraMax for Automatic Test Pattern Generation and fault modeling of the design.Figure 1 shows a simple FPGA Digital Design flow as students will experience in DigitalSystems Testing and Testable Design course. Students are expected to design and develop digitalcircuits or a system in Verilog HDL language, and a corresponding test bench to test the same.Synopsys VCS tool is used to simulate the design and verify the pre-synthesis designfunctionality. Then the functionally verified design is fed to the Design compiler tool, whichanalyzes and elaborates the design to produce three major files: Gate-level netlist file, Standarddelay format, and design constraints file. The synthesized gate-level netlist file is again simulatedusing
control of “something”. Additionally, we group this controlling “something” into three categories: a) internal control (internal signals), b) external control (buttons, switches, etc.), or, c) circuit control (using FSM or computer).Figure 4 shows an arbitrary circuit utilizing the three forms of control. The circuit contains anRCA and a 2:1 MUX; the MUX module has one control input to select which MUX data inputappears on the output. Figure 4(a) shows an internally generated signal controlling the MUX (theCo is a status output from the RCA), Figure 4(b) shows an externally generated signalcontrolling the MUX, and, Figure 4 (c) uses a controller circuit to control the MUX. (a) (b
initial experiment, the proposedcurriculum divides expected learning outcomes over a larger number of lab sessions. Thisenables students to focus more effectively on a smaller number of objectives in each experiment.Future assessment aims to gauge the long-term growth in comfortability students have withprogramming additional microprocessor-based relays.References1. D. Pudjianto, C. Ramsay, and G. Strbac. “Virtual power plant and system integration of distributed energy resources,” IET Renewable Power Generation, vol. 1, no. 1, pp. 10-16, Apr. 2007.2. S. A. Gopalan, V. Sreeram, and H. H. C. Iu. “A review of coordination strategies and protection schemes for microgrids,” Renewable and Sustainable Energy Reviews, vol. 32, pp
studies, will shortly be making when they enter their professions, andwill make over the course of their lives. Unsurprisingly, ethics courses that do not respect thedeep complexities raised by engineering design and technology are likely to generate studentsthat walk away unimpressed with the ethical thinking offered them.1 It is only later, when verydifficult ethical choices are presented that engineers come to regret not being sufficientlyprepared.With these considerations in mind we have deliberately constructed a course so that students, asfuture engineers and designers, will have the chance to think broadly and deeply about a numberof kinds of cases, and through many different ethical lenses.Framing Together Ethical Theories and Engineering
students were created by the author. This app is not commerciallyavailable.The general layout of the app is now discussed. The Free-Body-Diagram App – herein referredto as FBD – has the graphical user interface shown in Figure 1.Circle 1: Problem WindowThis area displays the problem statement. It includes all information needed to solve the problemas well as the information necessary to draw the free body and kinetic diagrams.Circle 2: Problem DiagramEach problem comes with an illustration meant to further clarify the problem statement. The usercan inspect any diagrams or figures associated with the problem. In addition, the user can eitherleft-click or right-click on this image to bring up the following options: 1. Left-Click Enables an
On-line learning practices of millennial students in the flipped classroomAbstractMillennials designate the generation born between 1982 and 2005. The millennials have aunique relationship to information technology which they consider an integral part of life.They tend to be always busy, impatient, and with a short attention span, which leads them tomultitask using various forms of electronic communication and devices1. Millennial studentsare team-oriented; they prefer working in cooperative groups and learning experientiallythrough trial-and-error (hacking).The flipped classroom approach was popularized around 2007 as millennials were in highschool. In this approach, short recorded lessons available online for the students to viewbefore
) andfollow the general cycle shown in Figure 1. Follow-on Activity Figure 1. Learning cycle for IBLAs.3While five different IBLAs have been developed at our institution4, only the Spool IBLAwill be discussed throughout this paper. In order to investigate the dynamic behaviors ofa rolling rigid body, students were presented with four different spool scenarios andasked three corresponding questions as seen in Figure 2 during the Spool IBLA. 1.Looking at the figure in scenario #X, if you pull on the string gently, which way do you predict the spool will move? Right _______ Left ______Won’t Move_______ 2.When pulling, which
. This technology came about as a result of developments in a variety ofdifferent technology sectors. The seven main manufacturing steps of generation of an additivemanufacturing process2 are described below:1. Every AM process starts using any professional CAD solid model, with the obligation that the output must be a 3D solid or surface drawing. This project used reverse engineering equipment (laser scanning).2. AM machines accept the STL file format, which every CAD system can output such a file format. This file describes the external closed surfaces of the original CAD model and forms the basis for calculation of the slices.3. Sometimes, when the STL file is applied in the AM machine it may need some general manipulation of the
assistantseffectively evaluate student performance in (1) innovation, (2) prototyping, and(3) design?”The focus of the course is the development of a gamma prototype board game as asurrogate for enhancing skills needed in medical device design. In the course,students are placed into groups, and while completing the board game; studentsare encouraged to consider aspects of innovation, product design, prototyping,and fabrication. Throughout the 16-week course, students learn variousbioengineering design, analysis, and decision-making techniques as well as thefundamentals of business and technical management. Additionally, student’sactually performance in innovation, prototyping, and design is measured based offthe instructors scoring of the DC.The board game
, microbiology, chemistry, geology, and engineering mechanics toproduce geotechnical engineers to work across disciplines.1 As a response to this call, in 2014, anEngineering Research Center, Center for Bio-mediated and Bio-inspired Geotechnics (CBBG)was established with a partnership among four universities - Arizona State University (ASU),New Mexico State University, Georgia Tech and University of California, Davis. With the ideaof learning from nature, the CBBG aims to transform the engineering of geotechnical systemsand address infrastructure-related challenges using biogeotechnics. The ultimate vision of theCBBG is to provide the critical mass needed to integrate the necessary disciplines, bridgeknowledge gaps, and educate a new generation of
the study of objects, structures, and materials on the nanometer scales. The field of nanoscience is growing exponentially over the past years and nanotechnology is impacting our daily lives in many ways 1. The National Science Foundation (NSF) estimates that the job projection for nanotechnology will cover around several million workers worldwide and about $3 trillion in sales for nanotechnology related products by 20202. With this demand, nanotechnology education is being offered by more and more universities around the world. This implies the importance of the education and training on a new generation of skilled individuals in nanotechnology. In other words, it is necessary to have an effective teaching and
encouraging. Similar to the trend in Midterm exams, students’performance also improved in the course with increasing percentage of students receiving 70%or higher and reducing percentage of students receiving less than 60%. Thus, dividing the coursematerial can improve class performance.IntroductionTo increase student learning and classroom participation, many different techniques are appliedin engineering schools. Some instructors use the traditional instructor-led method, some use ahybrid method or flipped classroom. In a traditional instructor-led class, faculties give lecture onthe topic where the instructor generally controls the materials and pace of learning1. With theease of making lecture videos, in a hybrid class, instructors can now blend
, facility, and prior experience with programming. Research1 has shownbenefits in using tutorials via mobile and web applications to better engage students and helpthem learn at their own pace and level. The programming platform will be Matlab/Octave2 whichis a programming language initially developed for numerical computations. It is widely usedacross industry and academia and research institutions. Knowledge in Matlab/Octave is requiredin many of the engineering job openings, which makes it a very important technical skill that ourstudents have to master for a successful career as engineers.Knowledge of programming and specifically Matlab is a prerequisite for several classes taught atthe Schools of Engineering around the country and a Matlab
and lessons learned in teaching the course will also be presented.IntroductionElectrical engineering is a broad field of engineering which encompasses many areas such ascommunication, controls, electronics, computers, electromagnetics, and power. Within the powerarea there are sub-disciplines which are typically categorized into the traditional power systems,power electronics, electric machines, and renewable energy. In California, Cal Poly StateUniversity is among a few universities that offers power concentration within the electricalengineering department. In addition to requiring all electrical engineering students to take theelectric machines class, the department offers many technical elective courses in power systems,power electronics
the School of Engineering at San Francisco State Uni- versity. His primary research interests are in the direct synthesis, characterization, and applications of nanocomposites and nanostructures for energy generation and storage. ˜Mr. Gilbert Ramirez, Canada College Gilbert Ramirez is a Bay Area resident who is originally from Southern California. Gilbert is currently studying Mechanical Engineering and has 15 years experience in the mechanical trade. He will be attend- ing Santa Clara University this Spring and his goal is to teach engineering after graduation. In his free time, Gilbert enjoys spending time with his three children and training for triathlons.Mr. Javier Robert PiccolottiDr
studentsobserved across the 4 sections/sessions). On average 1/7 students in each section (4/28) askedquestions of the UGTAs or colleagues that were not directly about the worksheet assigned. 15/28showed generally good focus/engagement in their work, but 9/28 exhibited poorfocus/engagement as exhibited by frequently checking his/her cellphone, looking at a non-relevant website, playing a videogame, or leaving lab as soon as it was practical to do so.Students in these sections did not exhibit curiosity by looking up information beyond what wasdirectly relevant to the worksheet, although 5/14 students did ask questions about non-amperometric methods of measuring blood glucose in the second week of observations, whichmay have been prompted by a question in
://www.sandiego.edu/disability/documents/Rethinking_Higher_Education_for_Students_with_Autism_Spe ctrum_Disorders_APA.pdf.19. Beder, S. (1999). Beyond technicalities: expanding engineering thinking. Journal of Professional Issues in Engineering Education and Practice, 125(1), 12-18.20. Uditsky, B., & Hughson, A. (2006). Inclusive post-secondary education for students with significant developmental disabilities: challenging legal, moral and pragmatic assumptions. Retrieved from www.researchgate.net/publication/265156319_Title_Inclusive_post- secondary_education_for_students_with_significant_developmental_disabilities_challenging_legal_moral_and_ pragmatic_assumptions.21. Neary, P., Gilmore, L., & Ashburner, J. (2015
simulation to achievesystem-level responses for modern performance-based design. As shown in Figure 1, the criticaland/or complex components of a structural system that may be difficult to model numerically arebuilt as physical specimens and tested as the experimental substructures. The rest of thestructural system, which is generally simple to model and analyze, is analytically modeled as thenumerical substructure. RTHS therefore has attracted considerable research interests in the lasttwo decades [2-3]. One of recent advances is the development of structural property dependentintegration algorithms and their application to RTHS. Explicit integration algorithms are oftenpreferred than implicit ones to avoid back and forth actuator movements
level and accuracy of technical description that the students present, inaddition to guiding student’s inquiries into their topic. An assignment earlier in the semester thatinvolves researching and writing about the science and engineering behind an idea, product, orprocess provides the experience for navigating academic work and more applied treatments oftheir subject matter. Frequent meetings with the research teams is useful for monitoring studentunderstanding of their topic and for directing them towards resources.Figure 1 below reflects student’s perspectives as they begin their research. At this point,students have looked at the Grand Challenges website which identifies the challenge andpotential technological remedies. Students have not
processes, wherethousands of threads are executed in parallel by their high computational power andprogrammability 1. The power consumption of the processor increases drastically in order toaccommodate a high throughput demands 2. Thus, reducing the consumption of power is acrucial challenge for next-generation GPGPU systems 3. Research has shown that the GPGPUwith DRAM as global memory expends around 20%-40% of the aggregate power consumptionof GPGPU 4. And leakage power makes up to 70% of total memory power utilization 3.Currently the DRAM based GPGPU’s adopt many techniques to reduce the consumption ofpower and to increase the computational power, but it reduces the bandwidth 11. Thus, there is atrade of between bandwidth and consumption of
the direct synthesis, characterization, and applications of nanocomposites and nanostructures for energy generation and storage.Hamid Mahmoodi, San Francisco State University Hamid Mahmoodi received his Ph.D. degree in electrical and computer engineering from Purdue Univer- sity, West Lafayette, IN, in 2005. He is currently a professor of electrical and computer engineering in the School of Engineering at San Francisco State University. His research interests include low-power, reliable, and high-performance circuit design in nano-electronic technologies. He has published more than one hundred technical papers in journals and conferences and holds five U.S. patents. He was a co-recipient of the 2008 SRC Inventor
around the nation,or Matlab, a widely available program. Although Microsoft Excel does have a differentialequations solving component[7], the process of solving the equations would be impractical giventhe number of differential equations that must be solved simultaneously, even in the relativelysmall mechanism that was provided. Excel was therefore not recommended to the students as thetool for the modeling portion of the activity. However, Excel was recommended as the tool touse to easily generate plots of the final data.Unit Conversions As seen in Chemical Modeling Exercise #1, the initial concentrations and rate constantswere provided in different sets of units. Thus, students had to determine a consistent set of units.Given the
statistics course. Teaching of Psychology, 40(3), 193–199. 9. Wilson, M., & Gerber, L. E. (2008). How generational theory can improve teaching: Strategies for working with the “Millennials”. Currents in teaching and learning, 1(1), 29-44.
havedifficulties identifying movement along particular contours and applying general Smith Chartprinciples. Multiple lecture videos have been prepared to illustrate Smith Chart methodsincluding basic “normalized impedance to complex reflection coefficient conversions” thatconvert between the complex normalized impedance plane and the Smith Chart. The mostdifficult hurdle is using the extensive grid on the Z version of the chart and the twice-as-denseZY chart. Multiple lecture videos describe examples and applications on both versions toillustrate RF network analysis and matching network design techniques. These videos arefollowed up in class to reinforce these difficult subjects.The author observed an improvement in student participation and insightful
Engineering Education, 2017 Upper Division Students Teaching Engineering Skills to Lower Division Students through Underwater Robotics Andrew Hostler, Bridget Benson Electrical Engineering Department California Polytechnic State University San Luis ObispoAbstractMany engineering students just starting out in their undergraduate career face problems with gaininghands on skills relevant to today’s workforce. The plethora of math, physics, and general educationcourses students take in their first two years of college often precludes students from obtaining hands-onengineering experience until their junior year. This paper describes a
appointment with the engineering librarianThe researcher asked participants to complete one or more of the optional tasks based on timeconstraints and student interests. During the conclusion of the session, the facilitator and thestudent engaged in a brief discussion and the student was invited to offer general feedback.The researchers then evaluated the feedback and test results, exploring where the guide could bestreamlined. The most serious problems were identified and small changes were made to addressthem. The second round of tests included the same three required tasks, but the main objectivewas to evaluate the effectiveness of the changes. During the second round, the researchers paidparticular attention to participants’ thinking aloud as
in which this study is conducted, you maycontact Dr. Michael Black, Chair of the Human Subjects Research Committee at (805)756-1508, mblack@calpoly.edu, or Dr. Dean Wendt, Dean of Research, at (805) 756-1508, dwendt@calpoly.edu. Moving beyond this page indicates that you give yourinformed consent to participate in the project. Please keep a copy of this form for yourrecords and thank you for your participation in this study.1. Please indicate your expected date of graduation.2. Please indicate your major. If other please elaborate.3. Please estimate the percentage of MATE and MATE required technical supportcourses that have required mostly paper submission of assignments.4. Please estimate the percentage of MATE and MATE required technical
, offered alongside the circuit theory course, which isalready available in an online format. The class materials cover the use of basic instrumentation(DMM, Oscilloscope), analysis and interpretation of experimental data, circuit simulation, use ofMATLAB to solve circuit equations in the real and complex domain, and exposure to theArduino microcontroller. Results from both implementations are used to generalize outcomesbetween online vs. face-to-face cohorts, and are contextualized with input from student surveysand interviews on the perception, use and overall satisfaction of the course and its resources.1. IntroductionIn 2016, for the second year in a row, students at Monterey Peninsula College (MPC), acommunity college along the central coast