Project on Microwave Passive Planar Circuits: An Educational Approach,” IEEE Trans. on Education, vol. 43, no. 2, pp. 227-236, 2000.[9] K.C. Gupta, “Concept Maps and Modules for Microwave Education,” IEEE Microwave Magazine, pp. 56-63, September 2000. Page 23.198.10[10] K. Payne, “Practical RF Amplifier Design Using the Available Gain Procedure and the Advanced Design System EM/Circuit Co-Simulation Capability,” White Paper, Agilent Technologies, 5990-3356EN, 2008.
• Explain and write software code 9 p.197-202 concepts AI concepts • Draw a concept map 9 p.168 Students will • Contrast multiple concepts demonstrate a deep • Define and give one example of a 9 p.38 understanding of course course concept
shown in Table 3 were mapped onto program-levellearning outcomes for the implementing institution. The course-level learning objectives werebroken down further into descriptions of specific concepts to be learned and competencies to beacquired. Thus, a complete concept map addressing the designated competencies was developed.This constitutes the blueprint for developing assessment items. The corresponding curriculumadaptations were implemented only over a 12 months period. In the 12 months time period threecourses were offered as planned. They are AEC 132, AEC 320, and IET 350. An assessmentinstrument was developed to check students’ understanding for these courses. The results of theassessments were analyzed and presented in the following
. Thornton, J. (2011) No Testing Allowed: Nuclear Stockpile Stewardship is a Simulation Challenge. Mechanical Engineering Magazine, Vol. 133(5), 38-41. 9. Morsi, R.; Ibrahim, W.; Williams, F. (2007) Concept Maps: Development and Validation of Engineering Curricula. ASEE Database, paper AC2007-1314. 10. Lopes, A. M. G. (2010) A Versatile Software Tool for the Numerical Simulation of Fluid Flow and Heat Transfer in Simple Geometries. Computer Applications in Engineering Education, Vol. 18(1), 14-27. 11. http://ansys.com/Products/Simulation+Technology/Fluid+Dynamics/ANSYS+Fluent 12. http://www.cd-adapco.com/products/star_cd/index.html 13. http://openfoam.com/ 14. http://www.cfd-online.com/Wiki
validate this core by better understanding how experts organize their knowledge ofdigital logic. For example, we could interview several digital logic instructors and ask them tocreate their own concept maps of the subject. Alternatively, we could replicate previousknowledge organizations studies and ask faculty and students to organize problems based ontheir similarity of solutions17. This problem organization can help reveal experts’ tacitknowledge structures. As we learn more about how experts of digital logic organize theirknowledge, we can build a stronger case for the core conceptual framework of digital logic. Page 25.712.12References1
LLC, http://www.videoconference.com 12. Hesselink, L., Rizal, D., and Bjornson, E. (2000). CyberLab: Remote access to laboratories through the world-wide-web. Retrieved September 26, 2005 from:http:// www.discoverlab.com/References/043.pdf 13. Gurkan, D.; Mickelson, A.; Benhaddou, D.; , "Remote Laboratories for Optical Circuits," Education, IEEE Transactions on , vol.51, no.1, pp.53-60, Feb. 2008 doi: 10.1109/TE. 2007.900018 14. D. Benhaddou, D. Gurkan, H. Kodali, E. McKenna, A. Mickelson and F. Barnes, “Online Laboratory for Optical Circuits Courses: Effective concept mapping,” ASEE-GSW, March 2006. 15. F. Farahmand and Seema Khan, “A Labview-Based Integrated Virtual Learning
, no. 4, pp. 375-386, 2007.[3] B. E. Carruthers and P. A. Clingan, "Use of FLUENT Software in a First-Year Microfluidic Course," in ASEE Annual Conference, Vancouver, Canada, 2011.[4] J. Gurlitt and A. Renkl, "Prior Knowledge Activation: How Different Concept Mapping Tasks Lead to Substantial Difference in Cognitive Processes, Learning Outcomes, and Precieved Self-Efficacy," Instructional Science, vol. 38, no. 4, pp. 417-433, 2010.[5] W. C. Cole, "Graphical Applications: Analysis and Manufacturing," Engineering Design Graphics Journal, vol. 63, no. 2, pp. 43-49, 1999.[6] N. Fang, G. A. Stewardson and M. Lubke, "Work in Progress - An Innovative Instructional Model for Improving Manufacturing Engineering Education," in Fronteirs
handed in Oct 6. 5 Oct 9-10 Teams completed hazard analysis of classroom in GD: list hazards, assess the consequences, investigate causes, and safeguards to reduce probability or severity of injury 6 Oct 16-17 Teams created a concept map used to investigate causes of an accident, and created a table to evaluate information sources 7 Oct 23-24 Each team did a brainstorming exercise using a single document in GD to record individual ideas, sort/rank ideas, and select top priority 8 Oct 30-31 Each team created an evaluation matrix. MEA1 due. 9 Nov 6-7 Each team responded to an ethical
sessionsInstrumental analytical chemistry Awareness; concept map; creativity(3,3)Physical chemistry (3) Interpersonal and group skillsChemical engineering self-directed learning; problem-solving strategythermodynamics (4,4)Heat transfer (4,3) Peer and self-assessmentEngineering economics (5,3) Successive approximation and optimum sloppiness; tacit knowledgeControlled release of drugs (6,3) Problem solving: Kepner-Tregoe approach Appendix D. Student scores on the 2-minute and the 5-minute presentation. Page
achievement is a difficult task for faculty. Faculty require students to gather evidence of their learning and to participate in oral examinations, in addition to using other methods of assessments such as practical examinations, concept maps, peer assessment, self-assessment, facilitators/tutor assessment, and written reports.References 1. Barrows, Howard S. "Problem‐based learning in medicine and beyond: A brief overview." New directions for teaching and learning 1996.68 (1996): 3-12. 2. Gijbels, David, et al. "Effects of problem-based learning: A meta-analysis from the angle of assessment." Review of educational research 75.1 (2005): 27-61. 3. Evenson, D. H., & Hmelo, C. E. (Eds.). (2000
develop competencies in a variety ofgraphical areas in order that they may apply them as cognitive tools (e.g., visualizationsketching and concept mapping), design tools (e.g., design sketching, 3D modeling,electronic publishing, and design analysis), or documentation tools (e.g., rendering,animation, and engineering drawings) (Figure 3). Page 24.654.8 Figure 3 - The Use of Graphics in Technology, Engineering & Design EducationTo develop these competencies, students have required courses in engineering graphics, 3Dconstraint-based modeling, architectural graphics, and imaging technologies (Table 2). Theyalso have electives available
Technology (CCT). CCT will investigate the overall project’s impact onfamilies’ STEM learning and effectiveness in achieving broader dissemination and ascalable model.The overall evaluation is guided by the following research questions: 1.) Is the development and implementation of project materials, recruitment strategies, training, and course activities well designed and integrated into the project’s goals? 2.) How do participants experience the project? 3.) What is the impact of the project on families, undergraduate engineering students?Data were gathered using surveys, interviews, concept mapping, and programobservations. CCT researchers collected relevant project documents (e.g., meeting notes,videos), surveyed
protocolanalysis, concept mapping, and ethnography.ELISABETH CUDDIHY is a doctoral student in the University of Washington’s TechnicalCommunication department. She holds bachelor’s degrees in Anthropology and ComputerScience and a Master’s in Computer Science from the State University of New York at Buffalo.Her interests include user interface design and assessment, design communication, andundergraduate and graduate education. In recent research, she is assessing how undergraduatescommunicate design rationale and she is developing methodology for remotely evaluatingWebsite design.STEVE LAPPENBUSCH is a doctoral student in the University of Washington’s TechnicalCommunication department. He holds a bachelor’s in English Textual Studies and
StatementsAll review materials contained on the foundations web site may be accessed through a front pagecontaining download information and a concept map for linking to appropriate materials.Alternatively, most TM instructors include direct links from the course schedule to complementmaterial to be covered in the course lecture. It is interesting to note that, while the site wasoriginally established as a supplementary review site for TM students, it is actually morefrequently accessed by undergraduate students at SDSM&T. Page 9.26.7 Proceedings of the 2004 American Society for Engineering Education Annual Conference and Exposition
thatallow students to work in a team atmosphere to initiate various elements of the projects.The purposes were for students to gain experience in how to design and develop aproduct, strategically plan, finance, assess and manage, produce, ensure quality, market,and distribute a product. Page 9.301.6 “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Education”Figure 1 – Various Units of the Capstone Course As indicated in figure 1 of the Concept Map demonstrates how the basic coreconcepts
in accomplishing the task. Page 6.1153.3 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Education • A means of organizing the acquired information. This can be accomplished with guiding questions, or directions to complete organizational frameworks such as timelines, concept maps, or cause-and-effect diagrams8, 14-15. • A conclusion that brings the task to a satisfying closure, recaps what they’ve learned, and perhaps encourages them to extend the experience into other domains.The
presentation · Timeliness · Knowledge test (for · Quantity of the results declarative and procedural · Skills mastery knowledge) · External assessment · Concept map · Vee diagram · Case studies Behavior (B) · Behaviors identified with · Direct observations (as a team) each of the construct · Interview
encourage faculty to view the ABET processas an opportunity to explore teaching and learning and consider possible changes to theirteaching. Via this process, center personnel could work with faculty to identify assessment toolsthat could drive this change (e.g., surveys, concept maps, portfolios, etc.). The center could alsobring in educational/assessment experts who could work with interested faculty to develop newapproaches of collecting assessment data and to change their teaching style based on this data.Centers could become more directly involved in helping faculty become adept at dealing with theassessment process. For example, they could conduct workshops and short programs onassessment followed by training and materials for faculty
including classroom assessment techniques (i.e. minute papers, concept maps, andprocess journals), measurable learning objectives, performance assessment methods, and scoringrubric development and use. After a review of these techniques, participants in the workshopselected one or two methods and with the assistance of Dr. Miller developed a plan forimplementation in their classrooms.In September 2000, Barbara Olds from Colorado School of Mines presented a two-hourworkshop overview of portfolio possibilities for student, course, and program assessment. Dr.Old’s discussed some of the advantages and disadvantages of using portfolios in a variety ofcontexts and provided examples of how she has utilized portfolios over the past fifteen
. (1990). "Building an organized knowledge base: Concept mapping in secondary school physics,"Journal of Research in Science Teaching. 27(4), 315-333.Paynter, H.M. (1961) "Analysis and Design of Engineering Systems," MIT Press, Cambridge, MA.Riley, W.F. and L.D. Surges (1996) “Engineering Mechanics: Dynamics,” John Wiley & Sons Publ.Scrivener, S., K. Fachin, G. R. Storey (1994) “Treating the All-Nighter Syndrome: Increased Student ComprehensionThrough an Interactive In-Class Approach,” ASEE Journal of Engineering Education, p. 152-155, April.Stein, J.L. (1991) "The Art of Physical System Modeling: How can it be Taught?," Proc. ASME 1991 Winter AnnualMeeting, DSC-Vol. 36, p. 11 - 17.Woods, D. R. et al. (1997) “Developing Problem Solving Skills
andinquiry science, we engaged teachers in a lengthy brainstorming session on the role and use ofgraphics in elementary grades. By the end of the activity, teachers became more aware of thecognitive role of graphics (e.g., Venn diagrams, concept maps, and KWL and tables) along withtraditional data driven graphics (e.g., pie charts and bar charts). During this session, the researchteam began to seed ideas about student abstract reasoning on concepts surrounding the“invisible” (Figure 3).Figure 3: Discussion about the invisible world The direct observable world really dominates the graphics in this area right here. But what we want to explore today is how do we move out from that direct observable world to that invisible world of
asolution, copying and pasting text, copying the solution of a problem from the board while theteacher is solving it, or selecting responses from a list of choices as in matching tasks. In thisstudy, we classified shallow and vague student reflections as active learning activities.Being ConstructiveBeing constructive refers to students’ engagement in activities that develop their knowledge andunderstanding of content in new ways, thus extending their knowledge beyond the level of thatbeing studied. 14 The characteristic difference between the constructive and active mode is that inthe latter case, learners do not produce outputs that go beyond the given information. Someexamples of the constructive mode include drawing a concept map, taking notes
Model 2D, http://www.design-simulation.com/WM2D, 2006 [Jan/2012].11. Cornwell, P., Concept Maps in the Mechanical Engineering Curriculum, Proc. of the ASEE Annual Conf., Washington, DC, USA, 1996.12. Cornwell, P., Dynamics Evolution – Chance or Design, Proc. ASEE Annual Conf., Saint Louis, MO, USA, 2000.13. Vikas, Y. & Gramoll, K., Design and Implementation of an Internet Portal for Basic Statics and Dynamics Courses, Proc. ASEE Annual Conf., Albuquerque, NM, USA, 2001.14. Gramoll, K., A Web-Based Electronic Book (eBook) for Solid Mechanics, Proc. ASEE Annual Conf. (Mech. Div. Best Pres. Award), Honolulu, HI, USA, 2007.15. Gramoll, K., eCourses Dynamics – Multimedia Engineering Dynamics, https
. InEnglish classes, it is not uncommon for students to practice design as brainstorm-ing. In this context, it is generatingnovel ideas. Student theories of design also come from media images of designed products, from fashion tocosmetics to cars. Design here is most often depicted as the creation of consumer products.In our classes, we have collected learner concept maps of design as a source of data for developing ourunderstanding of learner misconceptions. The directions ask them to draw a representation of the design processusing the words they associate with design. We have found that these renderings of design are prophetic inanticipating the kinds of behaviors we have seen students engage in. Two particularly insightful ones are
engineering.Connections between Ethics and DEI in Participant DrawingsDuring interviews in Phases 2 and 3, participants created drawings representing their mentalmodels of ethics-DEI connections. These visualizations included concept maps or diagrams andillustrated the complex relationships and connections they perceived between ethics and DEI.We brought a deductive codebook which was grounded in the authors’ anecdotal experiencesand which was comprised of six types of mental models, including: “(1) some overlap, (2) ethics= DEI, (3) DEI is part of ethics, (4) ethics is part of DEI, (5) ethics and DEI are separate, and (6)uncertainty regarding the overlap between ethics and DEI” [23, p. 1]. While we depicted each ofthese mental models in the form of concentric
concept maps sustainable transportation, Knowledge + illustrating the core principles of environmental and social impacts of Participation sustainable transportation, transportation, and how those are emphasizing how each principle embedded in socio-technical systems connects and contributes to the overall concept of sustainability in transportation. Application + Problem solving exercises and peer
Different Reflection Prompts Affect Engineering Students’ Academic Performance and Engagement?,” J. Exp. Educ., pp. 1–19, 2022.[8] M. Borrego, C. B. Newswander, L. D. McNair, S. McGinnis, and M. C. Paretti, “Using Concept Maps to Assess Interdisciplinary Integration of Green Engineering Knowledge.,” Adv. Eng. Educ., vol. 1, no. 3, 2009.[9] M. D. N. Lew and H. G. Schmidt, “Self-reflection and academic performance: Is there a relationship?,” Adv. Heal. Sci. Educ., vol. 16, no. 4, pp. 529–545, Oct. 2011.[10] N. A. Bradbury, “Attention span during lectures: 8 seconds, 10 minutes, or more?,” Adv. Physiol. Educ., vol. 40, no. 4, pp. 509–513, 2016.[11] A. Dallal, “Evaluation of Students Performance and Perception of
. Faculty have continued to make improvements to the solid modeling tutorials over thelast 9 years, which initially consisted of printed handouts. In 2002 handouts were replaced withweb pages with screen captures of key steps in the assignment. Streaming video demonstrationsreplaced these static web pages in 2007. As part of a parallel evaluation activity, faculty havebeen identifying key concepts that need to be covered in the course based on textbook conceptsand industry practice and creating a formal inventory of how these concepts map to courseinstructional resources.It is possible that some might consider these skills rather than concepts. The researchers considerthese concepts since they are independent of a particular CAD system and require
game called EduTorcs for teaching Numerical Methods and for teaching DynamicSystems & Control. In the former case, we found that students learning numerical methods witha video game learned the material more deeply, as measured by a concept map assessment9. Inthe dynamic systems & control class, we found that students who learned with video game-basedhomework and laboratory exercises scored significantly better on concept tests10. Furthermore,using a technique known as the experience sampling method, we found students learningdynamic systems & control with a video game are significantly more engaged11. Furthermore,these students were much more likely to take the more advanced dynamical systems & controlcourse as a technical
, searching and use as they consult different resources that canbe documentary or human. The situation of a design project group makes the research morefocused on groups but individual information seeking will be touched on as well. The main focusof this research is within the role of the group as showed in Figure 1.Figure 1. Research concept map Page 22.334.4Pilot study designA pilot study was conducted in March 2010 to collect data on students’ experience in the designcourse and how the project task interacted with the group’s collaborative information needs,seeking, and use. The pilot study did not aim to ask students about the information