M. Parlett, Up to the mark: A study of the examination game. 1974, Guildford: Society for Research into Higher Education. Page 10.664.1127. Snyder, B.R., The Hidden Curriculum. 1971, New York: Knopf.28. Innis, K., Diary survey: how undergraduate full-time students spend their time. 1996, Leeds: Leeds Metropolitan University. Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education29. Black, P. and D. Wiliam, Inside the black box: raising standards through classroom
Paper ID #25238Engineering Design Instruction Using Slack for Project Support and Team-workDr. Jonathan Elliot Gaines, University of South Florida Jonathan E. Gaines is faculty in the Mechanical Engineering Department at the University of South Florida. He is the Director of First Year Experiential Education and Learning. Through this position, he develops and implements the curriculum for USF’s Foundations of Engineering Lab course. He is also the Principle Investigator for Bulls Engineering Youth Experience (Bulls-EYE Mentoring) a Science, Technology, Engineering, and Math based outreach program that uses undergraduate
building a part, are produced. Analysis of the model is completeand the model is shown in its sliced state with color coded representation of its supports andboundary curves. Models can be examined further, if need be, by stepping through eachconsecutive slice layer to determine if model and support material exist in the proper places. Themodel is then placed on a graphic representation of the build table and can be saved or sent to themachine for prototyping. If saved, the model can later be merged with other pending jobs tomaximize platform use. When sent to the machine, via a network connection, an approximate Page 10.1051.4 Proceedings
through science, technology, engineering, and mathematics(STEM) initiatives at the K-12 level. While many of the ATE projects and Centers tend toaddress new and emerging technologies, several ATE projects are attempting to address theperceived declining state of electronics technology education. One of these NSF funded projectsis titled, “A New Systems View of Electronics for 2010”, and is run under the auspices ofMATEC[5] a mature NSF ATE Resource Center. This particular project has enlisted ET and EETfaculty from across the nation to provide input into the transformation of the classic “componentoriented” electronics technology curriculum to an updated “systems oriented” approach that ismore student centered and provides for an earlier
communications experiments based upon the 6713 DSK.Results obtained from these experiments are presented as well.ApproachesAs stated earlier, it is desirable to go beyond simulation in a digital communications laboratory.A laboratory based on a vendor-supplied DSP kit is the approach to be discussed in this paper;however, it is useful to motivate the use of this method by briefly describing other approaches.A popular approach is to use a software package such as National Instruments LabVIEW for thecomplex signal processing, along with data acquisition, teamed with either standard electronicsinstrumentation2 or with general purpose signal generation3. This method is similar in spirit tothe DSP approach although not quite as cost effective or as flexible
pivotal roles as principal investigator and senior personnel for over 10 research and teaching projectssponsored by diverse external agencies. Her prolific scholarly output encompasses 25+ publications spanningjournals and conference proceedings. Beyond her research, she actively engages in conference committees andextends her expertise as a diligent reviewer for esteemed journals and conferences in her specialized field.DANIEL K. JONES, PhD, PE, is an associate professor of Mechanical Engineering Technology SUNY Poly inUtica, NY. He teaches a variety of courses including mechanical components, advanced machine design, mechanicalmeasurements, vibrations analysis, and capstone experience. He has established a state-of-the-art EEG laboratoryand is
there is a SCF since high stress gradients produce large deflection ofthe light rays and an image with distinguishing characteristics. The advantage of causticsrelative to other optical experimental techniques is that the same equipment can be used in eithera reflection or transmission arrangement.SettingThe proposed experiments introduce the students to a practical experimental technique ofcaustics for the understanding of stress concentrations in the vicinity of a hole in a plate. Thedetermination of SCF is beyond the scope of this paper. The objectives of the experiments thatuse specimens in uniaxial tension are to show the students the following: • The development of stress in a member. (ABET outcomes e, k) • The region where the
its third semester, the program investigates explanted (orretrieved) medical implant devices, specifically total joint replacements, which commonlyinclude total knee and total hip joint replacement components. While 8-10% of Americans(roughly 20-25 million people) currently have these types of implants, rare complications canlead to device failure ultimately resulting in revision surgery and removal of the implants.Unfortunately, very few retrieved implant databases exist to study implant performance andfailure modes. Therefore, CU-REPO, through the means of a Creative Inquiry team, sought toestablish a retrieved implant database whereby undergraduate students could interact in a hands-on manner with retrieved implants from patients of local
this study was to test whether the instructor, issuing weekly CIQs to her onlinestudents, would be able to: 1) elicit authentic comments from her students which would allow her to gauge her students’ level of understanding regarding course content, 2) provide additional instruction as needed, 3) coach students through a self-directed site visit, and 4) assure a meaningful learning experience for all students.In this way, gather data that would help her understand her engineering students’ perceptions ofthe virtual learning environment and be responsive to her students' needs [2].Literature reviewEarly career faculty who are assigned online engineering courses may look for effective ways topractice learner-centered
. The interactionbetween students and practicing professionals who are attacking the challenges of the dayinspires the students to learn. The USMA CE program will continue to integrate the studentchapter activities into the curriculum to the point that the two become inseparable.References1. Henkel, Kenneth; Mow, Maurice; and Anderson, Edward, “Factors for a Successful ASCE Student Chapter”, Conference Proceeding, part of Civil Engineering Education, George k. Wadlin, ed., 1984.2. Shah, Kanti L., “Benefits of an Active ASCE Chapter to an Undergraduate Engineering College”, Conference Proceedings, Education and Continuing Development for the Civil Engineer: Setting the Agenda for the 90’s and Beyond, ASCE, Las Vegas, NV, April 1990.3
research hasindicated that instructors should create classroom environments that foster inclusivity andbelonging. However, there is a lack of specific guidance for how to create these environments,especially in engineering classrooms where much of the focus is on technical content. This studyis addressing this gap through developing and providing pragmatic, proven, and trusted practicesfor engineering faculty who are seeking to make their classrooms more inclusive environmentsfor all students. This research is informed by and aligned with the Theory of Change Model developed byHenderson, Beach, and Finkelstein which notes 4 categories of change strategies for highereducation: disseminating curriculum and pedagogy, developing reflective
; Garger, J. W. (2003). Assessing shared leadership. In: Shared Leadership: Reframing the How’s and Why’s of Leadership, Pearce, C.L. & Conger J.A. (eds.), 143-172. Thousand Oaks, CA: Sage Publications.2. Bass, B. M. (1985). Leadership and Performance Beyond Expectations. New York: The Free Press.3. Bass, B.M. & B. J. Avolio (1995). Individual consideration viewed at multiple levels of analysis: A multi-level framework for examining the diffusion of transformational leadership. Leadership Quarterly, 6, 199-218.4. Bass, B.M. & Avolio, B.J. (1994). Improving Organizational Effectiveness through Transformational Leadership. Thousand Oaks, CA: Sage.5. Bennis, W. (1993). An Invented Life: Reflections on
understanding. Said more simply, the factoralignment represents actual constructs rather than measurement error. Student’s willingness tolook beyond rules and known methods may contribute to how they perceive their control oversituational outcomes. The inverse may also be true. Students who feel control over the outcomeof a situation may be more likely to take innovative approaches and abandon models that theyreceive through instructional content. This alignment, of the innovation and personal controlconstructs, seems plausibly linked in student mindsThe authors believe this correlation is worth further exploration to see if these coalescedconstructs hold throughout students’ careers or begin to diverge towards the model proposed byRobinson. Robinson
O R T A. Accessed: Jan. 15, 2025. [Online]. Available: https://aorta.coop/continuum[16] K. Eller, M. Madonna, A. Hernandez-Martinez, and N. Ramanujam, “Tech Design for Global Health: Understanding an engineer’s role in global health through anti-oppressive design partnership,” presented at the Biomedical Engineering Society Annual Meeting, Seattle, WA, Oct. 11, 2023.[17] C. B. Zoltowski, W. C. Oakes, and M. E. Cardella, “Students’ Ways of Experiencing Human-Centered Design,” J. Eng. Educ., vol. 101, no. 1, pp. 28–59, 2012, doi: 10.1002/j.2168-9830.2012.tb00040.x.[18] T. Tucker, A. Pagano, and S. Shehab, “Merging Human-Centered Design with Engineering Design: Synthesizing a Human-Centered
Education 3For most senior engineering undergraduates, they have gained considerable capabilities to solvespecific technical problems. However, the IMSE 564 instructors think the students should havethe knowledge that not only benefits their current job hunting, but also helps them to besuccessful in the professional development as a team leader, a supervisor, a manager or even aCEO a few years beyond. Based on their extensive exposures in manufacturing industry, theinstructors decided to introduce Lean Manufacturing to the class.Lean Manufacturing first appeared in the public domain in 1996. It is an engineering philosophythat teaches people how
chip is activated, it sends backa magnetic wave that contains its unique identifying code, and then the reader decodes the datawhich is then transmitted to a processing unit. The RFID 125 K-Hz frequency is the idealtechnology to be used in places where attenuation and reflection are a major constraint. At thislow frequency level the attenuation is very little, which gives the magnetic waves the capabilityto penetrate through a large variety of materials, including metal [17].RF project structure Having RFID as the main technology used to identify the location of the local user, theSoS designed to give indoor location and awareness is described in figure 3
subject material in many ways. Therefore there has been an emphasison active learning methods and Problem-Based Learning (PBL) approaches especially inengineering education1-3. A PBL approach naturally introduces the student to abstract conceptsthat need to be applied to a practical problem. PBL also has a universal appeal particularly inengineering that goes beyond cultural contexts as is evidenced by the large number ofpublications devoted to such approaches in various geographical locations3-5.PBL and project-enhanced learning are slightly different approaches. The former refers toapproaches where the structure of the course is driven by an open-ended problem posed to thestudents. The latter refers to approaches where a project is integrated
,' UN General Assembly told. [online] Available at: https://news.un.org/en/story/2015/06/502952-journey-towards-bold-climate-action- critical-moment-un-general-assembly-told#.WmecxZM-cWo.[4] T. F. Stocker et al., “Climate change 2013 the physical science basis,” 2013.[5] T. R. Karl, Global Climate Change Impacts in the United States. Cambridge University Press, 2009.[6] Allen, M., Crawford, K., Théot, J. and Toscani, L. (n.d.). Climate Change and Capitol Markets. Stanford Graduate School of Business, p.74 [online] Available at: https://law.stanford.edu/wp-content/uploads/2015/07/Climate-Change-and-Capital- Markets-FINAL-05-13-2015.pdf[7] A. Anderson, “Combating climate change through quality education
]. Classicallytrained as a quantitative researcher, Glaser heavily influenced the objective, systematic processesembedded within grounded theory research. Glaser’s primary aim was to identify key strategiesor “codify” (p.9) the methods to demystify and conduct rigorous qualitative research [2].Glaser’s research partner, Strauss, impacted the development of GT by bringing a symbolicinteractionist perspective to the methodology. Symbolic interactionism assumes that reality isconstructed through language, symbols, and social interactions that are utilized by individuals toconstruct, make, and enact meaning and action [2, 18]. It was Strauss’s perspective that gavegrounded theory its qualitative-based approach of utilizing individual stories and accounts for
Curation Profile.[17] Krier and Strasser’s Data Managementone of two approaches: stand-alone courses or seminars/work- for Libraries: A LITA Guide was also used to develop severalshops. The stand-alone course has been used by information lectures.[18]science programs,[10,11] while the workshop/seminar approach Pre-course and post-course assessment was performedis commonly offered through libraries.[12] The stand-alone to determine the students’ knowledge about their currentcourse offers the advantage of in-depth material coverage laboratory RDM practices and eight specific areas of RDM.while the workshops require less time. However, workshops For assessment of current laboratory practices, the
-solving, creativity, persistence through mistakes, and many more [12]- [15]. 1Since the establishment of the KEEN – OSU partnership, there have been many additionalinitiatives to integrate EM into the engineering curriculum such as the integration of 14 EMLOsfor curriculum development [16], creation of rubrics associated with each EMLO, and thedevelopment of a toolkit of evaluations for each of the 3Cs including both direct and indirectassessments [17]. For continuous improvement of the first-year engineering curriculum, theEMLOs were regularly evaluated using assessments from the 3Cs toolkit. The data collectedthrough assessments showed evidence of
numbers, first in undergraduate, then in graduate school,and then from faculty and/or industry positions [21, 22, 23, 24, 25, 26]. STEM also facespersistent issues with racial diversity, including retention of non-White and non-Asianidentifying degree holders [27]. Patching up the leaks by increasing the sheer numbers of womenand BIPOC faculty in science, math, and engineering was the focus of a number of earlyinitiatives within STEM, but the focus has since broadened to include initiatives aimed atchanging institutional climate as well. Other work, including from outside STEM fields, has alsosuggested that equity and inclusion issues extend beyond increasing numbers and representation[28, 29, 30, 2, 3, 7, 10, 31, 11, 12] [13, 14, 32, 18].Formal
MillennialGeneration, many of these efforts have an international community development focus whereengineering teams work with community members on small-scale infrastructure. One expressedmotivation for such programs is the transformative experience and mindset-shift manyparticipants report upon return from their time abroad. Industry has been quick to endorse suchopportunities as necessary in creating the "global engineer", a professional adept and effective ina dynamic interconnected work world. This paper explores these perceptions through anobjective measure of intercultural awareness, the Intercultural Development Inventory (IDI). TheIDI is a cross-culturally valid and reliable method to assess intercultural competencedevelopment, and is suggestive of a
? SIGCSE’06, Proceedings of the 37th SIGCSE Technical Symposium on Computer Science Education. Houston, TX.10. Koile, K. and Singer, D. (2006). Improving learning in CS1 via Tablet-PC-based in- class assessment. Proceedings of ICER (Second International Computing Education Research Workshop). Canterbury, UK: University of Kent..11. Anderson, R., Anderson, R., Linnell, N. and Razmov, V. (2006). Supporting structured activities and collaboration through the use of student devices in college classrooms. http://classroompresenter.cs.washington.edu/papers/2006/AALR_2006.pdf12. Thomas, P. and Carswell, L. (2000). Learning through collaboration in a distributed education environment. Journal of Educational Technology & Society, . 3
of this paper include an analysis and discussion of this overlap, a description of theprocess, as well as the collaborative outcome and perceived value of the exercise. The challeng-es of communication, meeting the goals of each discipline, sharing information, team organiza-tion, and workflow between two distinct disciplines are discussed as well. The presentation ofthis paper will benefit others who desire to advance the knowledge of gamification of applicableaspects of a discipline through a thorough review of a collaborative process with clear articula-tion of discipline-specific project goals, design of processes, and best practices.Introduction It is a natural phenomenon for people to gravitate towards those with similar
AC 2008-1342: TEACHING REINFORCED CONCRETE DESIGN WITHMATHCAD APPLICATIONNirmal Das, Georgia Southern University Nirmal K. Das is an associate professor of Civil Engineering Technology at Georgia Southern University. He received a Bachelor of Civil Engineering degree from Jadavpur University, India, and M.S. and Ph.D. degrees in Civil Engineering (structures) from Texas Tech University. His areas of interest include structural analysis, structural reliability and wind engineering. Dr. Das is a registered professional engineer in Ohio and Georgia, and is a Fellow of the American Society of Civil Engineers
(AnMBRs) and currently operates a pilot scale system at K-State’s north agronomy farm to treat swine lagoon wastewater, with efforts currently supported by the DoE’s IEDO office. His research interests also include: anaerobic digestion, pretreat- ment technologies for bioprocessing of wastes and biomass, microbial electrochemical cells for valuable products generation (electric power, hydrogen gas and advanced oxidation products such as hydrogen peroxide), downstream resource capture from photosynthetic microalgae through novel environmental biotechnology for a sustainable and green biorefinery. Dr. Parameswaran also has active research grants through the NSF and industry partners. Prathap Parameswaran is currently an
VMwarehypervisor through the command line interface is complex, and the ESX hypervisorprogramming environment is limited, which makes it difficult to develop a rich andcomprehensive set of customizations for the VMware environment. In contrast, the Xenhypervisor operates within the familiar Linux environment, since Xen is layered on the kernel asan addition to Linux. The hypervisor environment, which runs in Xen Domain-0, can be easilycustomized, and access to Xen virtualization functionalities is straightforward. The downside toXen is that it can be unstable, especially when performing complex operations such as livemigration among physical hosts. KVM, the newest of the three, has greater stability and is moreup-to-date than Xen, due to the integration
- ous studies [6-10] highlight the benefits of virtual laboratories in renewable energy education. They enable learners to visualize complex power system behaviors, reinforce theoretical knowledge through practical application, and develop critical problem-solving skills. However, despite these advantages, many existing virtual labs suffer from high complexity and limited interactiv- ity, making them challenging to use effectively. To address these challenges, this lab presents a scalable and user-friendly virtual laboratory specifically designed for real-time microgrid operations. Unlike traditional setups, this platform prioritizes accessibility and engagement, allowing students
thinking, yet receive apoor course grade or vice versa. Therefore, the use of Bloom’s Taxonomy to provide a coursegrade is invalid. Page 13.1381.2Experimental Approach The integrated program focuses on Engineering Science courses. These include Statics,Dynamics, Mechanics of Materials, Fluids, Thermodynamics, Circuits, Structural Analysis, andEngineering Economics. A comprehensive problem is developed for each course and is assignedmidway through the term. Midway was selected by participating faculty because sufficientprinciples have been presented and the timing avoids conflict with year-end exams. Bloom’s Taxonomy identifies six