Heat Transfer,” Proceedings of the 2006 American Society for Engineering Education Annual Conference and Exposition, 2006. 11. Penney, W.R., Lee, R.M., Magie, M.E., Clausen, E.C., “Design Projects in Undergraduate Heat Transfer: Six Examples from the Fall 2007 Course at the University of Arkansas,” Proceedings of the 2007 American Society of Engineering Education Midwest Section Annual Conference, 2007. 12. Penney, W.R., Brown, K.J., Vincent, J.D., Clausen, E.C., “Solar Flux and Absorptivity Measurements: A Design Experiment in Undergraduate Heat Transfer,” Proceedings of the 2008 American Society of Engineering Education Midwest Section Annual Conference, 2008. 13. Busick, A.A
Applied Problem Economic Solving EvaluationGeorgia Southern University Highway Design I Water Supply & Heat Transfer Civil Engineering and Fluid Mechanics Wastewater Engineering Construction Lab Collection Graphics Management Project Cost System Energy Science Civil Engineering Analysis and Dynamics of Laboratory Technology Management Rigid Bodies Solid Modeling Mechanical Engineering Soil Mechanics/Lab Statics
designand ethics. The International Engineering Program8, 9 at the University of Rhode Islandcombines an undergraduate engineering degree with a degree in German, French or Spanish, andalso requires students to complete an internship in a country where the foreign language isspoken.The incorporation of professional skills is not necessarily easy to implement in many engineeringcourses. For courses involving the development of technical skills, there is always the tensionbetween covering the technical material (and providing experience in its application – homeworkand problem solving) and including projects that involve written or oral reports. If reports arerequired, they are typically part of a much larger assignment. The net result is that the
(e.g., active learning, visual learning,deep learning, team work, etc.) that are most effective in the laboratory. The obtained answersprovided in the figures guide us to get more high school students into the engineering educationfor their future careers.Additionally, the results also explained if the nanolab projects have any influence onnanoscience, nanotechnology and research and development in the fields. Furthermore, studentinvolvement in the nanolab sessions does not only contribute with the main objective of theprogram specified previously, but it also generates multiple secondary benefits, including [5]: Constructing the learning environment. Allowing students to discover by themselves about the early signals that affect
at a nearby university, Beyond Blackboards incorporates engineering design method andthe National Academy of Engineering (NAE) 21st Century Grand Challenges to immerse upperelementary and middle school students in design-based learning. During afterschool “InnovationClubs” throughout the 2010-2011 and 2011-2012 academic year and a summer camp followingeach year, middle school students worked in teams to design, build, and program robots usingLEGO® MINDSTORMS® NXT robotics kits and the NXT-G programming environment. Teamspresented the functionality of their final design, and contextualized their project by describing areal world application they researched for their robot that may help to solve one of the 14 NAE21st Century Grand Challenges
University Brian Frank is an associate professor in Electrical and Computer Engineering, where he has taught courses in electronics and wireless systems. He is the DuPont Canada Chair in Engineering Education Research and Development, and the Director of Program Development in the Faculty of Engineering and Applied Science where he works on engineering curriculum development, program assessment, and developing educational technology. He is a co-founder of the Canadian Engineering Education Association and is currently coordinating the Engineering Graduate Attribute Development Project, working with National Council of Deans of Engineering and Applied Science and the Canadian Engineering Accreditation Board, to develop
day. Teachers participating in the on-school-site academy, as part of theNSF funded research project, were expected to deliver “what is technology”, “what isengineering” activities, introduction to EDP, and the four EiE lessons contained in a single EiEunit during the school year.B. ParticipantsParticipants of this study are teachers either who attended the Summer Academy offered by theINSPIRE at Purdue University (National group) or the on-site Summer Academy held in a largeschool district located in South Central United States (On-site group) from 2008 to 2011. The Page 23.838.52008 to 2010 National group were volunteers from across the U.S
. Page 23.89.7 For this next interview, our focus is on learning more about “who you are” and the experiences that have shaped the way you think, act, and see yourself in the world and in relation to others. To do this effectively we will use pictures, that you own or collect from another source, that represent something important to you. These pictures may be in any form – self-portraits, graphic images, computer generated images, pictures of friends, family, homes, co-workers, projects, favorite places, etc. There are no right or wrong pictures. The pictures we will ask you to provide for this next interview will be held confidential and viewed only by the researchers of this study. The pictures will be used solely for the
research questions: (RQ1) how do womenengineering faculty construct their mentoring networks? and (RQ2) what are engineering womenfaculty’s mentoring network configurations?Methods This paper is part of a larger project to assess the revised formal mentoring programsdesigned and offered by the College of Engineering at a large Midwestern (U.S.) university andto study the mentoring experiences of faculty members in the STEM discipline. Our paperfocuses on women faculty members’ mentoring experience from a network perspective. Seventenure-track women faculty members from the College of Engineering agreed to participate inour study (see Table 1). Participants represent five different engineering specialties in theCollege. Two of our
residential IllinoisMathematics and Science Academy and Kansas Academy of Mathematics and Science.Conversely, if just high school location was used without home addresses, the data may notadequately capture the locale background of students who attend schools in other locales.However, obtaining details on high schools attended and implementing a qualitative component Page 23.885.12where rural students are interviewed as part of the study would provide more information andpartially lessen this limitation.Because of the somewhat narrow scope of the project and the limitations, further research is stillneeded to assess rural students’ participation in
-paper planning than shedoes, but she was only observed noting this idea, never asking her students to expand on whythey felt the need to build before planning. Because it happened several times during theplanning time, this episode can be labeled a response, albeit a possibly unconscious choice, tocoerce her students into her ideal model of planning which might not be useful for this project orfor their style of problem solving. Her insistence during the lesson that planning was achievedby having a sufficient drawing and words on their worksheet ignored the diversity of planninggoing on in her own classroom.If teachers wish to emphasize planning, they need to consider what tools will actually be useful,if not essential, to their students for a
. They essentially describe the intended scope and expected results of ateaching activity, course, or program. Goals express intended outcomes in general terms andobjectives express them in specific terms2. A learning outcome refers to a statement thatdescribes what the learner is to have achieved and can reasonably and reliably demonstrate bythe end of a teaching activity, course, or program.Measures to assess student learning typically fall into one of two categories: direct or indirect.A direct measure is one that “directly” evaluates student learning3. Direct measures include theuse of actual student work and include items such as an exam or quiz, class assignment, project, report, etc. work-related task, interaction
videos outside of class, and participated in interactive learning activities inside class.Students in the flipped environment scored significantly higher on all homework assignments,projects, and tests.In summary, of all the studies on the flipped classroom, there is only one (Day and Foley [11] ) thathas examined student performance throughout a semester. While the results from this study areencouraging, this is not sufficient evidence to warrant generalization far beyond that situation.Further, the solution was very specific, rather than being based on established principles to guideadaptation. Thus, additional research is needed to examine the influence of flipped classroominstruction on objective learning outcomes.6 Future Directions for
, Germany. It does so by focusing ontone U.S. student and one German student, Ben and Manuela, and using survey information,observations of class sessions, analysis of student projects, and interviews with them to illustratetheir experiences.Data indicate the U.S. student, Ben, adjusted the methods he used to communicate with Germanstudents and expressed an increasing awareness of the connection between engineering solutionsand cultural differences. The German student, Manuela, increased her participation levelsthroughout the simulations as well as increasingly expressed her curiosity to know more aboutother cultural engineering practices. It is hoped the findings from this study informs futurecourses on how to instruct students in how to display
engineers would be tocommit a major transgression. The biggest reaction would likely be to the video’s overt sexuality,a violation of the ideal of disembodied hegemonic masculinity, even as displays of sexualizedheteronormative masculinity are routinely permitted.Sexualized heteronormative femininity is also permitted, and even used in the service ofpromoting women in engineering. The Nerd Girls trailer27 shows young female able-bodiedengineers donning pink capes and black glasses, heavy makeup and stiletto heels; these womenconform to hegemonic feminine beauty ideals and body types in much the same way as the sexynerds (though there is greater racial diversity). The Nerd Girls do a project involving a doggiedoor for a pet owner described in the
addressing major challenges that confrontsociety today”3 (p. 6). Others have argued that adding engineering concepts and projects tomathematics, science, and technology curricula have benefits for both learning outcomes andstudents’ interest in the STEM subjects13-15."ABET10 highlights the importance of how "theengineering sciences have their roots in mathematics and basic sciences but carry that knowledgefurther toward creative application" (p. 2). Additionally, engineers must be able to applydifferent aspects of mathematics, science, and technology2, 7, 11, 16. Chae, Purzer, and Cardella17,for example, list the ability to apply science, mathematics, and technology in problem solving asone of the core concepts of engineering literacy.When looking
. Understanding Student Differences. Journal of Engineering Education, 94(1), 57- 72, 2005. 4. R. Felder, G. Felder, M. Mauney, C. Hamrin, E. Dietz. A Logitudinal Study of Engineering Student Performance and Retention. III. Gender Differences in Student Performance and Attitudes. Journal of Engineering Education, 84 (2), 151-163, 1995. 5. Goodman, C. Cunningham, C. Lachapelle, M. Thompson, K. Bittinger, R. Brennan, and M. Delci. FINAL REPORT OF THE WOMEN’S EXPERIENCES IN COLLEGE ENGINEERING (WECE)PROJECT. April 2002. http://www.grginc.com/WECE_FINAL_REPORT.pdf 6. G. May and D. Chubin. A Retrospective on Undergraduate Engineering Success for Underrepresented Minority Students. Journal of
forreading and varying levels of technical expertise. These constituencies range from managers andcolleagues to general audiences, who may have a significant stake in an engineering project ortechnology. Engineers need sophisticated rhetorical skills to accommodate the varying interestsand levels of knowledge of these audiences. In recognition of the importance of these skills forengineering graduates, and in part to meet ABET requirements, most engineering schools acrossthe country have incorporated some form of writing instruction in their engineering curricula.At the University of Southern California’s Viterbi School of Engineering, all undergraduates are
engineering students, specifically women and underrepresented minorities. He is working towards a M.S. in Industrial & Systems Engi- neering and he received his B.S. in Industrial Engineering from Clemson University.Ms. Kelly J Cross, Virginia Tech Kelly Cross earned her Bachelor of Science in Chemical Engineering from the Purdue University in 2007. She earned her Master’s of Science in Materials Science and Engineering from the University of Cincinnati in 2011. Ms. Cross is currently in the third year of the Engineering Education PhD program at Virginia Tech. She is currently involved with multiple educational research projects with faculty at Virginia Tech. Her research interests include assessment, diversity
23.808.6explore career pathways and develop their professional identity. YES student cohorts areexposed to the benefits that each experience offers through the YES Distinguished SpeakerSeries (speakers include an entrepreneur and a researcher), the YES Symposium, and interactingwith each other. For example, a Research Path student may be interested in how tocommercialize a research project or create a start-up company; or an Entrepreneurship/InternshipPath student may be interested in starting a business but realizes that pursuing a graduate degreewill provide specialization in the field. A similar educational approach (joining co-op withundergraduate research experiences) with engineering students at the University of Puerto Ricoat Mayagüez (UPRM) has
designers who addressspecific needs in the domain including integrative systems design, Human-Computer Interaction(HCI), Information Assurance and Security (IAS), reliability, networking, web interactions andmuch more. Since these skills are all part of the IT university curriculum IT professionals have asignificant role to play in the design of these complex systems. In fact most of these skills arepart of the pillars and central themes of IT education7. It is revealing that the respected annualsurvey sponsored by EE Times and others8 indicate that over 50% of the projects includenetworking and more than 30% include wireless, but in this report the designers are classified ashardware, software or firmware engineers and their lists of design tasks
asagitation increases, and for low current density, ultimate strength is directly proportional toagitation and temperature. This is a direct correlation to the learning outcome of demonstratingthe ability to explain and apply fundamental mechanical properties and experimental testing,including failure.The next evidence of achieving the learning objectives includes the correlation of the predictedmechanical properties with measured values based on a limited number of experiments oravailable data. This project was devised to teach students the fundamentals of design ofexperiments for the processing of materials for characterization, and the exercise assessment wasdeemed satisfactory because of the students’ capability to predict the boundary
basin. World ocean weather forecasts, wave forecasts, ocean circulation,oil spill forecasts and forecasts of fish and shellfish resources have an insatiable appetite formore and faster computational capability. In my short lifetime, computational assets have grownfrom flops to kiloflops, to megaflops, to gigaflops, to terraflops to petaflops with no end in sight.Our National Science Foundation, Defense Advanced Research Projects Agency and Departmentof Energy have been instrumental in keeping overall U.S. computational science and engineeringassets at the cutting edge. The National Hurricane Center (NHC) and Federal EmergencyManagement Agency (FEMA) performed in a highly effective manner during the 2012Hurricane season with their forecasts
classroomspecifically designed to foster collaboration and active learning. The classroom (shown in Fig. 1)has five round tables with six chairs each and walls covered with whiteboard surface. Although itwas not used in this course, the classroom also has the ability for students to project computerdisplays from their tables onto the walls for all to see. Figure 1: Classroom used for active learning instruction in fall 2012 Research methodsWe are using a quasi-experimental approach to evaluate the impact of the active learningteaching method. The results presented here are the preliminary findings
electric machines, drive systems and other low frequency environments. He performed multiple research projects for ONR and NAVSEA since 1994 dealing with; power system analysis, physics based modeling, electromagnetic signature, sensorless control, electric machinery, high frequency switching, electromagnetic Interference and shipboard power systems modeling and analysis. Professor Mohammed has currently active research programs in a number of these areas funded by DoD, the US Department of Energy and several industries. Professor Mohammed has published more than 350 articles in refereed journals and other IEEE refereed International conference records. Professor Mo- hammed is an elected Fellow of IEEE and is an elected
,reporting and displaying project results, simple engineering mechanics and materials science,and simple circuit analysis. Students will ideally take this course during their freshman year incollege. The prerequisite for this course is pre-calculus, which is the mathematics requirementfor the engineering program in general, so some students will have had one or more semesters ofremedial mathematics and/or science courses upon enrolling in the introductory engineeringcourse. The class meets for two 75 minutes lecture periods per week, with class periods devoted Page 23.461.3to either traditional lecture or in-class group activities.For the final exam
at the faculty member’s ownwillingness to assist in this project. How can you as a faculty member in the College ofEngineering help the college in its objective of educating ethically responsible engineers? Just asit is important to know where faculty stand in their understanding of the concept “ethics acrossthe curriculum,” so it is also important to know what responsibilities they are willing to assumein order implement Ethics Across the Curriculum. This question seeks open-ended comments, inorder to generate the most varied of responses from the participants.Survey Case StudiesThe next section of the survey centers around six case studies. The prior questions aim toascertain faculty familiarity with professional ethics, their practice in
the mini- presentations, class discussions, POGIL activities, classroomdemonstrations were helpful in assisting them learn materials science.The author’s experience in implementing this new hybrid curriculum was positive and plans to implementit again in Fall 2013 with some changes as follows. In addition to using the MCI to measure learning, theauthor plans to develop assignments or tests to measure how well students learned the basic “ConceptsBeing Taught” and how well the mini-presentations accomplished the “Purposes” in Table 1 and Table 2,respectively. Assignments that will require higher level of critical thinking such as case studies or open-ended project assignments are in consideration
a high focusprogram-curriculum. However, the exception that is made in the capstone project coursewhere the students are assessed on several program outcomes must be looked into.Every program outcome is assessed by more than one course (high coverage and high validityProgram-curriculum). However, some of the program outcomes are assessed by only thecourses and no other tool, which is an issue that may require attention (high coveragemedium validity program). Again, excluding the capstone, the program assessment has Highfocus.Now looking at the capstone, not all the outcomes of the capstone are assessed. This could be Page 23.60.15an