and satisfaction. The research questions are as follows:1) How do the types and quality of teaching methods used for statics impact students’ (a)knowledge of statics; (b) satisfaction with the learning environment Types of teaching methods were evaluated by classroom observations (in tandem with answering research question 2 below). Item (a) was evaluated via comparative course grades in statics, and pre/post performance on a concept inventory. Students’ satisfaction (b) was evaluated using and focus groups with students, the Student Assessment of Learning Gains (SALG) online survey, and end of semester evaluations.2) What do statics faculty report were: (a) their background in and motivations for adoptinginnovative teaching
between the idealized conditions theyfocus on in their undergraduate courses. In addition, students experienced first-hand how designdetails affect the boundary conditions and the overall structure demand and behavior. Page 26.959.8References:1. Grauvilardell, J., Lee, D., Hajjar, J. & Dexter R. 2005. Synthesis of Design, Testing and Analysis Research on Steel Column Base Plate Connections in High Seismic Zones, Structural Engineering Report No. ST-04-02, Department of Civil Engineering, University of Minnesota.2. Aviram, A., Stojadinovic, B. & Der Diureghian, A. 2010. Performance and Reliability of Exposed Column Base Plate
, weevaluated the students based on their integrated knowledge and its application to a real-worldscenario.2. Project OverviewQuinnipiac University is a medium-sized private university in northeastern United States. Withinthe engineering program, a 3-credit hour Introduction to Engineering course is offered; it isrequired for all engineering freshman students. The goals of the course are twofold: (a) to explainthe basic practice of engineering, impact on society, skills employed, and professional/ethicalresponsibilities; and (b) to summarize the knowledge bases, skills, problem types, and analysistechniques of the four engineering disciplines offered at the university. By raising students’understanding of engineering disciplines, the course enhances
. National Academies Press, (2005). Educating the Engineer of 2020: Adapting Engineering Education to the New Century: The National Academies Press.4. Lohmann, J. R., Rollins, H. A., & Hoey, J. J. (2006). Defining, developing and assessing global competence in engineers.European Journal of Engineering Education, 31(1), 119-131. doi:http://dx.doi.org/10.1080/030437905004299065. Johri, A., & Jesiek, B. K. (2014). Global and International Issues in Engineering Education. In A. Johri & B. M. Olds (Eds.), Cambridge Handbook of Engineering Education Research (pp. 655-672). University of Cambridge: Cambridge University Press.6. Patil, A., & Codner, G. (2007). Accreditation of engineering education: Review
, D. C.; Lane, D. R. The Effects of Physical Environment on Engineering Team Peformance: A Case Study. Journal of Engineering Education 2001, No. July, 319-330.11. Dinsmore, D. L.; Alexander, P. A.; Loughlin, S. M. The impact of new learning environments in and engineering design course. Instructional Science 2008, 36, 375-393.12. Palmer, J.; Hegab, H. Developing an open ended junior level laboratory experience to prepare students for capston design. ASEE Annual Meeting and Exhibition, Louisville, KY, 2010.13. Nelson, J.; Hollenbaugh, E.; Borup, B. Using Sponsored Design Projects to Strengthen Professional Practice Curriculum Components in Civil Engineering Capstone. ASEE Annual Conference and Exposition, Indianapolis, 2014; p
., Wepfer, W. & Perry, T. Vision 2030 – Creating the Future of Mechanical Engineering Education. In the 2011 Annual Conference Proceedings, American Society for Engineering Education. Vancouver, BC. New York; June 27 - 29, 2011.3. Kirkpatrick, A., Danielson, S., Perry, T. ASME Vision 2030’S Recommendations for Mechanical Engineering Education. In the 2012 Annual Conference Proceedings, American Society for Engineering Education. San Antonio, Texas; June 10-13,2012.4. Lopatto, D. Undergraduate Research Experiences Support Science. CBE- Life Sciences Education. 2007; 6:297– 306.5. Seymour, E., Hunter, A. B., Laursen, S. L., & DeAntoni, T. Establishing the benefits of research experiences for undergraduates in the
. 1419, January, 2004. 16 Khlar, D. and M. Nigam, “The Equivalence of Learning Paths in Early Science Instruction,” Psychological Science , 15 (10), 661667, 2004. 17 Tuovinen, J.E., and J. Sweller, “A Comparison of Cognitive Load Associated With Discovery Learning and Worked Examples,” Journal of Educational Psychology , 91 (2), pp. 334341, 1999. 18 Lemley, E.C., and B. Jassemnejad,“USE OF SUPPLEMENTARY ONLINE LECTURE MATERIALS IN A HEAT TRANSFER COURSE,” Transactions of the Amer. Soc. for Engr. Ed., AC 20125110
prove helpful in theidentification and recruitment of returners, an important first step in supporting these studentsand better utilizing their unique backgrounds. Future work will examine how the experiences,challenges, and values of returners compare to those of direct pathway students as well as takinga more in-depth look at both groups’ process of deciding to pursue a PhD. A morecomprehensive overview of the survey development process can be found in Mosyjowski, Daly,Peters, and Skerlos28.B. Survey Distribution and ParticipantsWe distributed the GSEMS nationally to both returning and direct-pathway domestic engineeringPhD students. We opted to focus only on domestic students due to the variation in “typical”paths to graduate study in other
research but can also serve as a guide for others who may attempt similar work in the future.Project Goals for 20151) Development, testing, and validation of the engineering innovativeness measurement instrument for both student and practicing engineer populations through the collaboration and support of ten universities and ten corporations in three phases: a. Classical item analysis and instrument testing. b. Pilot testing and factor analysis. c. Validation testing of instrument[s].2) Planning for full evaluation studies in 2015-2018 of Engineering Innovativeness at all 20 collaborating academic and corporate institutions. a. Project plans for research studies to be conducted at the participating collaborating
Paper ID #11954Integrating Multi-scale Approaches and Innovation into Product and ProcessDesign in Chemical Engineering CurriculaProf. Watson L. Vargas, Department of Chemical Engineering, Universidad de los Andes Dr. Watson L. Vargas is Assistant Professor at the Chemical Engineering Department, Universidad de los Andes. He was educated at Universidad de America (Bogot´a, Colombia), Colombia National University (Bogot´a, Colombia) and University of Pittsburgh (Pittsburgh, PA). He has worked at Colombia National University, Nueva Granada Military University and University of Pittsburgh. He is a member of the American
defining the equivalent 30 credits was undertaken by the ASCE Body ofKnowledge Fulfillment and Validation Committee. It issued a report in 2005 titled Fulfillmentand Validation of the Attainment of the Civil Engineering Body of Knowledge9. The committeeconcluded that the B+30 path is a viable option for acquiring the BOK. It also recommended thatexisting entities such as ABET provide the course approval process and that NCEES review theacceptable courses.Work in further defining the equivalent or plus 30 credits concept continued in 2008. The ASCEPlus 30 Task Committee (P30TC) was created in October 2008 and charged10 to “explore whatthe +30 credits should be, and with identifying practical alternatives for how civil engineers canattain +30
them promptfeedback, establishing clear expectations, and working with them on various academic oremergency situations. Hence, authors conclude that for making a connection with students,establishing clear expectations is extremely important for students’ success and their enhancedlearning experience. Authors also feel that the findings of this study will help New EngineeringEducators prepare effectively for connecting with freshman students and providing outstandingand information rich learning environment to them.References[1] M. Roberts, R. Deppensmith, AC 2012-4764: Observations From First-Year Instructors: What We Wish WeKnew Before We Began, American Society for Engineering Education 2012.[2] B. Swartz, AC 2012-3646: Building A Classroom
green buildings, building energy and water efficiency, and stormwater, wastewater, andsolid waste management infrastructure.The next step was to develop instructional materials. The course educational materials wereintentionally developed in modules to (a) support instructional needs of the new course offeringand (b) allow for select modules to be incorporated into existing courses or be used for trainingseminars to educate practitioners and agencies on issues related to sustainability. Hundreds of Page 26.1029.5PowerPoint slides and notes, reference listings, and webinar-type presentations were developedby module and became available to use
, 10, & 12Mathematical application 13, 14, & 15ResultsFigure 1 a-b show the results of comparing students’ achievement in the pre-test in the controland experimental groups. To compare the performance of the students in the two groups, thefollowing criterion is defined in this study: Percentage of correct response (PCR) = (The number of students who selected the correct answer to a question/ Total number of students in the group) × 100%For example, if 15 out of 30 students answered question A correctly in the pre-test while 20 inthe post-test, the PCR of question A in the pre-test is 50%, PCR in the post-test is 67%. The PCRincreases by 17%.Data indicate that, on average, students in the experimental group were at
. Regardless of how the experience was structured, whether or not students felt safe during an experience or had an adequate degree of support played a central role in determining their emotional responses as well as their willingness to engage with and learn from the experience. 3. Approaches to Participating in Intercultural Experiences – once a student decided to willingly participate in intercultural experiences, five distinct approaches were frequently used engage with the culture around them, displaying varying degrees of complexity. The highlighted approaches are (a) listen and observe, (b) compare and contrast ideas, (c) engage in personal reflection, (d) explore personal identity as it relates to global understanding, and
engaged in team projects. This integration ofengineering with other disciplines would further enhance the experience of students and betterprepare them for teamwork after graduation by enhancing learning and facilitating self-efficacyand innovation.References 1. Holley, K.A., 2009, "Best Practices Related to Interdisciplinary Education," ASHE Higher Education Report, 35(2), 89-99. 2. Hotaling, N., Hermann, C. D., Fasse, B. B., Bost, L. F., and Foresta, C. R., 2012, “A Quantitative Analysis of the Effects of a Multidisciplinary Engineering Capstone Design Course,” Journal of Engineering Education, 101(4), 630-656. 3. Zohar, Ori. Letter to the author. 25 Jan 2015. TS
Section 1 (taught by the first author) receivedslightly higher grades on the exams/quizzes in the class. At the conclusion of the class the Page 26.243.11average grade for the students in Section 1 was a B-, compared to a C+ for the students inSection 2. More importantly the percentage of students failing to receive a C or higher inTable 2: Grade Comparison between Sections Section 1 Section 2 Quiz Grade 2.8 2.8 Hour Exam Grade 2.3 2.2 Final Grade
completing graduation requirements. · Assess and evaluate information for personal use.Together, the Mentors and Mentees had the following shared responsibilities: · Set the mentoring agenda (discussing clear expectations and boundaries). · Practice honest communication and interaction. · Accept the “take it or leave it” option without fear of diminishing the helping relationship.Over the summer, the Peer Mentors participated in group training sessions involving reading,writing and discussion-based assignments in order to prepare to be successful Peer Mentors.Training materials used for the Peer Mentors included: • Students Helping Students: A Guide for Peer Educators on Campuses, F. B. Newton, S
Circuit AnalysisCourse in a General Engineering Curriculum”, Proceedings of the Annual Conference of theAmerican Society for Engineering Education, Vancouver, BC, Canada, 20114 ABET, inc.; Criteria for Accrediting Engineering Programs;http://www.abet.org/Linked%20Documents- UPDATE/Criteria%20and%20PP/E001%2009-10%20EAC%20Criteria%2012-01-08.pdf; Last accessed 1/12/155 Bidanda, B. and R.E. Billo, “On the Use of Students for Developing Engineering Laboratories”,Journal of Engineering Education, April 19956 O’Connell, Robert, M. Moore and K. Zimmershied, “Using Student Projects to DevelopLaboratory Experiments for the Power Electronics Course”, Proceedings of the AnnualConference of the American Society for Engineering Education, Pittsburgh, PA
, Creativity and Cognition Press, University of Technology, Sydney, Australia.Dym, C.L. (1994). Engineering: A synthesis of views. New York: Cambridge University Press.Gee, J. P. (2004). Language in the science classroom: Academic social languages as the heart of school-based literacy. In W. Saul (Ed.), Crossing boarders in literacy and science instruction: Perspectives on theory and practice. Newark, DE: International Reading Association.Glaser & Strauss, 1967.Hegedus, T. A., Carlone, H. B., & Carter, A. D. (2014). Shifts in the cultural production of “smartness” through engineering in elementary classrooms. Proceedings of the 121st American Society of Engineering Education Annual Conference and Exposition
) A. Six sigma and organizational goals B. Lean principles in the organization C. Design for six sigma (DFSS) methodologies II. Define Phase (23 Questions) A. Project identification B. Voice of the customer (VOC) C. Project management basics D. Management and planning tools E. Business results for projects F. Team dynamics and performance III. Measure Phase (23 Questions) A. Process analysis and documentation B. Probability and statistics C. Statistical distributions D. Collecting and summarizing data
respective Atlas ScientificSTAMPs while submerged as shown in Figure 5. Once the reading is recorded, the Arduinoinstructs the winch to return the sensors to their original position. Figure 4: Block diagram of CAUTION’s electronic components Figure 5: CAUTION with submersible sensors deployed Page 26.334.76. Data CollectionFigure 6 below shows a sample collection of data obtained at a UMES pond.Figure 6: a) (top) Raw csv data recorded onto onboard memory card b) (lower left) Missionwaypoints and resultant trajectory c) (lower right) Plotted depth data using GPSvisualizer6The raw data lists measurements obtained from the depth
development principles to provide students structured engagement, such as incorporating the “predict, observe, explain” technique. 3. Deliver the Interactive Virtual Laboratories in classes using the studio architecture recently implemented at the home institution. 4. Assess the perception and effectiveness of the Interactive Virtual Laboratories through: a. Classroom observation, student surveys, and instructor and student focus groups b. Measurement of learning gains on the Throttling Valve question and the Technician question, two conceptual questions that have been historically difficult for students 5. Incorporate the Interactive Virtual Laboratories as resources in the
maker movement. Innovations 7, 11–14 (2012).3. The role of interest in learning and development. (Psychology Press, 1992).4. Hynes, M. M., Joslyn, C. H. & Hira, A. Underrepresented students’ interests and how they relate to engineering. in NARST Annual International Conference (2015).5. Hira, A., Joslyn, C. H. & Hynes, M. M. Classroom makerspaces: Identifying the opportunities and challenges. in IEEE Frontiers in Education Conference Proceedings 1677–1681 (2014).6. Transformative Learning Technologies Labs. Transformative Learning Technologies Lab. (2013). at 7. Waller, B. Math interest and choice intentions of non-traditional African-American college students. J
1) finds a fewreferences to “creativity” and/or “innovation” or variations on them. The search isdescribed in detail in Appendix A of this paper. The words creation, creative (twice),innovative, created, create (twice), and creativity appear. The use of these words issupplemental or incidental, in that they are not part of a strong creativity/innovationtheme, with one possible exception.In outcome 9, Design, "Creative" is used in the discussion of the level of cognitivedevelopment to be “fulfilled through the bachelor's degree," also called B, as in"Fostering creative knowledge in students prepares them to handle a future of increasingcomplexity that relies on a multidisciplinary approach to problems
our findings. female 9% male 91% F IGURE 1 : S EX O F E NGINEERS I DENTIFIED A S E XEMPLARY L EADERS B Y E NGINEERING C OLLEAGUES We conducted a Chi-square goodness of fit test (non-parametric equivalent of a one sample t-test) and found a significant difference between engineers’ selection of exemplary leaders by sexX2 (1, N=148)= 99.78, p
understanding a phenomenon through individuals experiences that build a whole description of the phenomenon (Kindle Loc. 2952). They also explain that the outcome space should be parsimonious, looking for the minimum of categories that explain the whole phenomenon (Kindle Loc. 3008). But, now I ask myself, how to assure saturation, or how to know those are all? What happen if one category of the outcome space (for let’s say phenomenon A) is set as the new phenomenon (let’s say phenomenon B) to study? will it be subcategories explaining that particular way of seen the phenomenon A, now called phenomenon B, all the ways experiencing phenomenon B, therefore was the first outcome space all the ways experiencing
empathy in terms of innovative engineering design. The goal of including these stages in thisorder was to (a) address the survey constructs from a variety of lenses and (b) to vary thespecificity with which they referred to the four discovery behaviors.Thematic Analysis ProcedureThematic analysis35 was performed on the nine interview transcripts in order to understand thechallenges students faced in employing the four discovery behaviors within an engineeringcontext or, conversely, factors that supported the utilization of the discovery behaviors. Thematicanalysis is useful in uncovering the latent meaning among a group of participants, which isparticularly helpful in this instance as many participants’ responses were directly related to
and engineering projects. She also co-directs the Welcome Project (welcomeproject.valpo.edu), a first-person story collection about identity and inclusion.Dr. Jeffrey Dale Will, Valparaiso University Will completed his B.S.E.E., M.S.E.E., and Ph.D. degrees from the University of Illinois at Urbana- Champaign and has been a full-time faculty member in the Electrical and Computer Engineering De- partment at Valparaiso University since August of 2001. He teaches courses in senior design, computer architecture, digital signal processing, freshman topics, and circuits laboratories and is heavily involved in working with students in undergraduate research. Will is also a 2013 recipient of the Illinois-Indiana ASEE
and determine rewards.Design reviews for capstone design projects vary across institutions and engineering programs4.Commonly, a two-semester project will have three design reviews: problem review, concept review, andfinal solution review. Assessment focus shifts according to the review, but it typically examines theadequacy of processes used and quality of products delivered in the corresponding stage of design.Outcomes of the review should be a decision to (a) proceed without changes, (b) make minor refinementsand then advance, or (c) make major revisions and undergo another review before advancing. Throughthese design reviews, students learn to present, assess, and defend their design work before professionals