blocks with academic blocks. Students are split between ‘Aand ‘B’ groups so that in any quarter about 50% are working and 50% are in classes.To prepare students for their first work block after only two years the students must havesufficient training to be useful. This requires an intense course schedule and significantdesign content. It also means the customers, the student and the employer, get to measurethe quality of the education not at the end, but at the midpoint.Project based design education starts at the freshman year and ends with a two-quarter,team based, capstone Senior Design Project Students can learn either from bottom up ortop down study of design. In the second year graphics course we offer, they have theoption of either
reading a. Measurements, measuring equipment, data takingb. Oral directions b. Record keeping and procedural stepsc. Electronic communication c. Fundamental math operations, units and unit conversion (computer/software, phone, fax, email, etc.)d. Planning and short reports d. Problem solving/decision makinge. Teaming/small group activities e. Graphical analysis of data f. Precision and experimental errors Page 3.490.4
–57.[12] B. Y. Alkazemi and G. M. Grami, “Utilizing BlueJ to teach polymorphism in an advanced object-oriented programming course,” Journal of Information Technology Education, 2012, accessed: 2021-8-5.[13] M. Behroozi, A. Lui, I. Moore, D. Ford, and C. Parnin, “Dazed: Measuring the cognitive load of solving technical interview problems at the whiteboard,” in 2018 IEEE/ACM 40th International Conference on Software Engineering: New Ideas and Emerging Technologies Results (ICSE-NIER). ieeexplore.ieee.org, May 2018, pp. 93–96.[14] M. Behroozi, S. Shirolkar, T. Barik, and C. Parnin, “Does stress impact technical interview performance?” in Proceedings of the 28th ACM Joint Meeting on European Software Engineering Conference and
. Students werealso given an assignment where Matlab was used to simulate a process controller. Page 11.1026.7 BLOWER N2 C A B CW 1) Please position the sensors and control devices in this system 2) Please write the control logic for this batch reaction A + B --> C + ABC-CBA Reaction is exothermic It goes to 100% completion A
one to write and upload programs to ArduinoUno. Arduino Uno has a 10 bit multi-channel analog to digital converter. The default full scalerange voltage is 5 V but one can adjust this value using external reference pin. Its theoreticalmaximum data acquisition rate is 9.6 kHz. Our kit included a USB cable for connection to a PC.We also used Raspberry Pi 4 Model B in this study. Raspberry Pi is a single board computer thathas a 1.5 GHz processing speed, WiFi and Bluetooth connections, a Linux operating system(Raspbian), and 40 general purpose input-output connector pins. The kit included a 5.1V powersupply for the Pi, an HDMI cable, an 8 channel 10 bit Analog to Digital Converter (to match theArduino accuracy), and a 32 GB microSD card preloaded
do not track this in all the workshop instances though.Stretch mindset The value delivery covers this to some extent. We conduct many of the workshops on a holiday with only a lunch break. This, of course, may not suffice to develop a stretch mindset.Focus on tasks The 3H model and value delivery covers this to some extent. All the activities are time bound and schedules are strictly adhered. Table 1: The sub-competencies and corresponding pedagogical techniques and contentsPrinciplesThe framework is based on the following four principles: (a) Creativity and Innovation can betaught; (b) Student-centered learning such as, team- and project
. Our purpose is to promote the development of this new kindof entrepreneurial mindset within the purview of sustainability. This new concept of sustainableentrepreneurship education embraces total activities, constructs, and programs that can be anengine for economic and social development. 16ReferencesTerence R. McAuliffe (2014). Establishing the Governor’s Council on Youth EntrepreneurshipCouncil, Executive Order Number 47 (2015) https://governor.virginia.gov/media/4378/eo47-governors-council-on-youth-entrepreneurshipada.pdfFayolle, A., & Gailly, B. (2008). From craft to science: Teaching models and learning processesin entrepreneurship education
Session 2309 A bioinstrumentation course for sophomore biomedical engineers John G. Webster University of WisconsinAbstractThe curriculum for the BSBME degree at the University of Wisconsin-Madison has a series oflecture-laboratory courses: bioinstrumentation, biomechanics, biomaterials, physiology forengineers, modeling of physiological systems, one each semester. Bioinstrumentation is taken inthe fourth semester, with prerequisites of calculus, physics, and chemistry. It builds on physics toprovide learning of electric circuits, instrumentation, and strength of materials
! ! ! a uf! c t! re U! ! !! ! se & R! !t!! ! ! !e! !! e ir em n t T!r! ! !! e! !! eat m! nt A! ! ! !! i!!!! ! ! c q u is t ion P! ! ! ! ! s!! ! ! roc es! ing &!A! ! e! !b
and has been directing the Architectural Engineering minor program within the Department of Art + Architecture at University of San Francisco. She joined the new Engineering program curricu- lum development efforts in 2015, became interim director in 2018, and is the first chairperson of the department. B¨ottger has been a teacher for 20+ years. In her architecture and engineering courses at USF, she em- phasizes low-carbon, environmentally sustainable approaches to designing for the built environment, and especially the effect of these decisions on under-served communities. She doesn’t separate good design from seeking social justice.Dr. N. Jeremy Kasdin, University of San Francisco
back, rendering it unable to move ≠ Full body spinner, uses the entire body and frame of the robot as a weapon by spinning it around itself ≠ Dead blow, uses a hammer-like mechanism to swing at an opponent with large mass or a puncturing weapon. ≠ Inertial spinner, uses the inertia of large rotating masses to inflict damage, picture to be found (Figure 2) (a) (b) (c) Flipper Bot Full Body Spinner Dead Blow Figure 1: Weapon Styles Page 14.424.6
reflect the change. Although the TAs made students aware of the changes, thattook away time and often led to confusion. As is good practice with any teaching tool, it wasobvious that there was a need to update the manuals to accurately reflect the equipment and toolsbeing used in the experiments.Survey resultsTwo surveys were designed, one to get feedback from current and past students as well as asecond for current and past TAs to understand the main points and determine the priorities of theredesign. The questionnaire used to survey the TAs is attached as Appendix A and thequestionnaire used to survey the students is attached as Appendix B. The survey questions listedin the appendices exclude the demographic type questions that were not related
AC 2007-2163: DESIGN OF A THERMAL SYSTEMS COURSEJesse Maddren, California Polytechnic State University Jesse Maddren is Associate Professor in the Mechanical Engineering Department at California Polytechnic State University in San Luis Obispo, CA. Page 12.456.1© American Society for Engineering Education, 2007 Design of a Thermal Systems CourseAbstractMany mechanical engineering programs offer thermal systems design as either a required orelective class, typically during the senior year. The course integrates the subjects ofthermodynamics, fluid mechanics and heat transfer in the design of a system
that peers arevery knowledgeable about the department's programs and goals including the issues within thedepartment. They also may have considerable familiarity with the technical content beingtaught. However their evaluations could be biased due to personal relationships or pressure fromthe person being reviewed. There also may be biases due to a preference for one's own teachingmethods. These can be ameliorated by using several people and providing them training in whatto look for and how to develop the appropriate information. Appendix B shows the check sheetthat is used in COAST for the report from peers.Student ratings of instruction can be very valuable for both formative and summative purposes aslong as the rating sheet is
-446.4. DeMarco, T. 1982. Controlling software projects: management, measurement & estimation. Yourdon Press, New York, NY.5. Humphrey, W. S. (1988). Characterizing the software process: a maturity framework. Software, IEEE, 5, 2 (March/April, 1998), 73-79.6. Kaner, M., and Karni, R. 2004. A capability maturity model for knowledge-based decision-making. Information, Knowledge, Systems Management, 4, 4 (December, 2004), 225-252.7. Keller, K., and Mack, B. 2013. Maturity Profile Reports (March 2013). Retrieved May 17, 2013 from http://cmmiinstitute.com/assets/presentations/2013MarCMMI.pdf.8. Kitson, D., and Masters, S. 1992. Analysis of SEI Software Process Assessment Results 1987-1991, Technical Report
many educational challenges both for new recruitsand also to continuously update the skills of those employed. However, the main focusof this paper is with those who use the electronic products (category B in figure 1).It is easy to lose sight of the needs of the much larger workforce that designs, builds andsustains the electronic systems. One of the reasons is that the work is no longer limitedto one industry segment. Positions that use electronics skills are now to be found in awide range of industries including biotechnology, health-care, manufacturing,entertainment, automotive and consumer products. Electronics technology is a keyenabler of all of these contemporary industries and is their critical path to meet the
(a) relates the number of engineeringdisciplines and the EE/CE/ECE majors offered online to the total number of investigateduniversities.Figure 1(b) relates the number of EE/CE/ECE Baccalaureate, Masters, and Doctoral degreesoffered online to the total number of EE/CE/ECE degrees offered online. Only one university,out of the23 universities found here to be offering online EE/CE/ECE disciplines, is offering aBaccalaureate degree. The majority, 19 universities (82.6%), are offering Masters Degrees online. 140 25 120 82.6 % 20 100
were applied: a. demonstrate an appropriate mastery of the knowledge, techniques, skills, and modern tools of their discipline, b. apply current knowledge and adapt to emerging applications of mathematics, science, engineering, and technology, d. apply creativity in the design of systems, components, or processes appropriate to program objectives, e. function effectively on teams, f. identify, analyze, and solve technical problems, g. communicate effectively, i. understand professional, ethical, and social responsibilitiesThe course was structured with a combination of guest speakers and active hands-on exercises inwhich students could apply their knowledge of
differential equations. Appendix B shows the detailMath-Cadł program to perform this integration.Approach III- Math-Cadł Built-in Function rkfixed Page 9.848.5Proceedings of the 2004 American Society for Engineering Education Annual Conference &Exposition CopyrightÀ 2004. American Society for Engineering EducationThe Math-Cadł built-in function rkfixed6, which is an implementation of fourth-orderRunge-Kutta method, is used to solve the system of non-linear differential equations (12).The detail of calling this function in Math-Cadł is also shown in Appendix B.Results and DiscussionsFigure I, taken from Appendix A
objectives may be emphasized to some extent as well, which means that theobjectives are addressed by at least two of the course components.IV. Course DescriptionCurrently, the major design experience for our students is satisfied with a two-course capstonedesign sequence, EP480/EP481 Capstone Design I/II. The first course is one hour and thesecond is three hours. The proposed course would replace the second course in the sequence.The first course would remain to cover the necessary topics unique to engineering design.The objectives of the proposed course called UI4xx Capstone Experience are to: A. Simulate the environment of professionals in the student’s major discipline. B. Provide opportunity for open-ended and creative effort to solve
various calculations, or that provide a plug-in that can be added to other programs.Therefore, the resources for the use of graphical analysis of thermodynamic systems have beenbarely exploited. Nevertheless, the understanding of various thermodynamic concepts can bestimulated or enhanced with the use of these graphical representations, and even more so if aninteractive and creative analysis of these graphics is allowed.Historically, the representation and study of processes in thermodynamic diagrams have been apart of didactic strategies widely used in the classroom, and in textbooks. A few examples couldbe: a) the comparison of different types of compression or expansion processes with the graphicalanalysis of work, of shaft work and heat, b
electronic elements that getcombined into seemingly unrelated circuit topologies. If the course is long enough,students may finally see enough elements combined to create an op amp.A good starting point is to take an instrumentation approach7,8 and describe what needs tobe accomplished from a signal-flow standpoint. Input/output (I/O) relationshipscompactly summarize the behavior of the system. Figure 1 shows some typical examples. a) b) c)Figure 1. Useful I/O relationships including, a) y=mx+b, b) deadzone, and c) limiter (comparator).Objective 2: Project-based LearningDefining a companion project is the next major element in the approach. Projects providemotivational examples that reinforce
student does notunderstand a portion of the material, or if a large portion of the class is having troubleunderstanding a concept, then it is usually not until the quiz that the professor is aware of theextent of the deficiency. At that time both the professor and students become frustrated, albeitusually for different reasons.Each topic within the new Dynamics course is presented in a definite style: a) basic theory orintroduction of the equations, b) initial observation of the material via lecturer-worked problems,c) initial learning via a class problem worked in groups during class time, and d) assignedhomework. This provides immediate feedback to the professor and alerts the students to nuancesin the problems not seen during the theoretical
engineering education.Mrs. Susan Beth D’Amico, NC State University Susan B. D’Amico Coordinator of Engineering K-12 Outreach Extension The Engineering Place College of Engineering NC State University Susan earned a B.S in Industrial Engineering from NC State and has worked in the Telecom and Contract Manufacturing Industries for over 25 years as an Industrial Engineer, Process Engi- neer, Manufacturing Engineer, Project Manager, Business Cost Manager and Program Manager. Inspired Page 26.644.1 by coursework she developed and presented as an engineer, her professional path made a turn towards education by
t m D A C 2c B x E n z d *N ot T o S cale* L/2 L/2 2L Figure 1. Simply supported beam with geometric and material data. Proceedings of the 2006 Midwest Section Conference of the American Society for Engineering Education
) TrainingSystem for Use Outside of the Automation Laboratory” in International Symposium forEngineering Education, Dublin City University, Ireland, 2008.[6] “CLICK Series Programmable Controllers,” AutomationDirect. [Online]. Available:https://www.automationdirect.com/adc/overview/catalog/programmable_controllers/click_series_plcs. [Accessed: 28-Feb-2021].[7] B. Kicklighter, “On the Development of a Portable Programmable Logic Controller (PLC)Trainer” in 2021 ASEE Virtual Annual Conference Content Access, Virtual Conference, 2021, p.37536. Available: https://peer.asee.org/37536. [Accessed: 03-Aug-2021].[8] B. Kicklighter, “On the Development of a Next-Generation Sensor/Actuator Module forAutomation Labs” in 2021 ASEE Virtual Annual Conference Content
why the mentee is incollege - a theme for future discussions. They also discuss the benefits of going to class, whereto get free tutoring, and study habits. At the end of the first meeting, the mentor and mentee bothsign the Mentor and Mentee Agreement. This agreement, adapted from Brainard3, sets in writingthe expectations and conditions of the mentor and mentee relationship. The form spells out:a) the objectives, b) the confidentiality issue, c) the frequency of meetings, d) the duration of thementoring relationship, and e) the no-fault termination clause. It is important for the student toknow they can terminate the relationship for any reason at any time, without guilt, hence the no-fault termination.10 This agreement is signed by both
experiment in theactual laboratory (Group A). The third set of questions was intended only for studentsconducting the experiment remotely (Group B) and the last set of questions was intended forstudents who had a choice of conducting the experiment in the real laboratory or the remotelaboratory or both. The complete analysis of all student responses is beyond the scope of thispaper, thus only the questions and their answers as well as students comments from the first setare included here.Response to student questionnaires was not compulsory. Yet about 80 % of students submitted aresponse together with their reports. Surprisingly, the lowest return - only about 30% - occurredin group B – remote experiment only. All responses were submitted
thermalcollector versus earthworm biomass; however, the combination of both heat generators wasconducive to continue composting throughout the winter. Temperature Daily Average About 1/2 in the compost pile A - 12" depth from top of bin 20 B - 3" depth in compost pile
various student comments as reported on SPIE. The main point of writing this paper is to express that the ETW has a very significant and positive impact on this individual attendee. This sentiment is shared and documented by other ExCEEd graduates6 although not in a quantifiable manner directly to classes that are taught. The author teaches classes in a more confident and active manner and believes that students are learning more in class. Students provided comments to aspects of class that are directly attributed to ETW. Responses to specific questions on the SPIE to assess the impact of class components done as a result of ETW are presented in Appendix B. The results in Appendix B are from only one class in the Fall 2004 semester