accommodatethe new” [42]. Additionally, students are motivated more intrinsically, rather than receiving 4external affirmation. This theory requires engagement on the part of the learner [43]. “Withoutsome kind of internal drive on the part of the learner to do so, external rewards and punishmentssuch as grades are unlikely to be sufficient”[42].Experimental Methods/Materials/Project ApproachEngineering State of Mind Instrument (ESMI) Interviews conducted in 2011, at the university in the department of xxx, [44] revealedthemes that were used to create and develop the survey used in this research. Measuring theidentified themes, a survey was
industry working with the ”Council of Tall Buildings and Urban Habitat” where he worked on funded projects to compare different structural systems performance when made of steel vs. concrete. He also worked as an intern at Illinois Department of Transportation (IDOT) for two summers. Part of his work at IDOT involved collection and analysis of aggregates from different queries and sending reports to headquarters in Springfield, Illinois. c American Society for Engineering Education, 2020 Enhancing Student Learning Through Pre-Lab Assignments and Virtual Reality / Simulation Components in the Strength of Materials Laboratory ExperimentsAbstractApplied Strength of
-solving, and criticalthinking skills. Furthermore, Zydney et al. [15] reported that the student-faculty interactionplayed an important role in helping students determine their career choice after college.This paper presents an application of the undergraduate research experience for students withlimited access to research opportunities at their home campus. The application is more unique byincorporating a research project design that includes students working with a faculty at theirhome institution as well as collaborating with a second faculty at another university campus.This two-campus design allows the student high-impact interactions with multiple faculty andgraduate students, as well as promotes new faculty collaborations. Follow up
-disaster evacuation ofnatural disasters should be taught in college. The next steps and any future study should includea larger sample population with an investigation of the implementation of resilience in aconstruction curriculum. Educational outcomes would also be an area of interest for futureresearch.References[1] McLeman, R., and Smit, B. (2006). "Migration as an Adaptation to Climate Change." Climatic Change, 76, 31–53.[2] Williams, J. W., Jackson, S. T., and Kutzbach, J. E. (2007). "Projected distributions of novel and disappearing climates by 2100 AD." Proceedings of the National Academy of Sciences of the United States of America, 104 (14); 5738-5742.[3] Mora, C., Frazier, A. G., Longman, R. J., Dacks, R. S
. Specifically, allnew faculty participate in a ~6 weeklong initial summer training workshop run at the departmentlevel. Here, new faculty are given the opportunity to develop relationships with their facultycohort as they explore foundational teaching skills. New faculty members also completenumerous events designed to indoctrinate them into our university’s community. Beyond initialsummer training, our university maintains the Center for Faculty Excellence (CFE), whichprovides numerous faculty development opportunities throughout the academic year. The mostintensive CFE offering is the Master Teacher Program, which is a two-year program consistingof teaching-related classes and a required capstone project. To graduate, faculty members mustcomplete a
in the spring semester of 2019.The campus-wide collection cancellation project makes us rethink current practices for collectionmanagement, especially the pruning practice which is primarily based on the cost-per-use model.According to Kendrick, the cost-per-use model fails to account for variability of the usage pattern,consequently overvaluing journal subscriptions [1]. Beyond the limitation of the cost-per-use model,there are four main challenges around collection management. First, we engineering librarians havemany responsibilities besides collection management including instruction, reference, public servicesand outreach. Second, we spend increasing expenditures on “big deal” journal packages to which ourlibraries subscribe and have
problems solvedusing diverse methods [1-3].Most problems in engineering are graded using a rubric that accounts for the solution, and not forthe thought process. The simplicity of those rubrics does not permit the identification ofdeficiencies in problem solving skills. In this project, a problem solving rubric developed forPhysics students was adapted to assess the problem solving skills of engineering studentsenrolled in a first semester engineering course. Unlike most rubrics used in engineering courses,this rubric grades the thought process, and splits the problem solving approach into separatecategories: Useful Description, Engineering and Math Approach, Application of Engineering,Mathematical Procedures, and Logical Progression. In this
Development Assistant at the Center for Teach- ing and Learning at TAMUQ, where he assists in organizing faculty oriented workshops, investigating effective teaching techniques in STEM, and conducting faculty evaluations.Ms. Jude Aloudeh, Texas A&M University at Qatar I am an undergraduate electrical engineer studying electrical engineering at Texas A&M University at Qatar. My interest lies in the field of artificial intelligence, machine learning, and different aspects of power and communication. I have completed various research projects that relate to both scientific and social issues. I have received a first-place award from the Weil Cornell Medical Conference regarding the 2030 Qatar Vision, where my group and
Management. She worked in industry for six years as licensed engineer and structural consultant for Wallace Engineering in Tulsa, OK before returning to Oklahoma State as a visiting faculty member in the School of Architecture. In 2009, Professor Ram- ming joined the faculty full time as an assistant professor of architectural engineering. Since that time, she has taught classes in structural analysis, timber and steel design, engineering mechanics: statics, building foundations and numerical analysis. Professor Ramming has recently been named Halliburton Outstanding Young Faculty and the Outstanding Teacher for the College of Engineering, Architecture and Technology. She has also published books for Project Lead the Way
name is Berrak Seren Tekalp, I am from Turkey, and I am a junior in Industrial Engineering at Quin- nipiac University. I have a mathematics and a general business minor. Beginning in my sophomore year, I’ve done many academic types of research with my professors. In these projects, I have used advanced features within the IBM SPSS Statistics and Excel programs. I am a hard and reliable worker. I have been able to expand my communication skills, and through my time as an active member of multiple student organizations and engineering groups at Quinnipiac. I’ve led numerous meetings and club projects. I am comfortable with working in teams. c American Society for Engineering Education, 2020
]. Although there are some slight variations by state, there are fourmajor requirements to becoming a professional engineer (PE): Graduate from an ABET-accredited engineering program, Pass the Fundamentals of Engineering (FE) exam, Work under a PE for four years (three years with a Master’s in engineering), and Pass the PE exam.Undergraduate engineering students may take the FE exam prior to graduation in their senioryear [5]. During an engineering student’s senior year, their time is limited and occupied withsenior design projects, finishing course work, and job hunting. Studying for the FE exam is oftenthe last thing on their minds. However, their interest increases when they learn that being able tolist on their resume that
Educational Research and Methods Division of ASEE. She founded the Center for Research on Learning and Teaching in Engineering at U-M in 2003 and served as its Director for 12 years. Prior to joining U-M, Dr. Finelli was the Richard L. Terrell Professor of Excellence in Teaching, founding director of the Center for Excellence in Teaching and Learning, and Associate Professor of Electrical Engineering at Kettering University. Dr. Finelli’s current research interests include student resistance to active learning, faculty adoption of evidence-based teaching practices, and the use of technology and innovative pedagogies on student learn- ing and success. She also led a project to develop a taxonomy for the field of engineering
engagement data from these teachers’ classrooms. Specifically, wecollected data from 1100 6th grade students for their pre-engagement (before the implementationof the curriculum unit) and post-engagement (after the implementation of the curriculum unit).Academic performance data were provided for 915 6th grade students. We used the modifiedmultidimensional engagement instrument, “The Math and Science Engagement Scales,” forstudents’ engagement data. The instrument has four dimensions, which are behavioral,emotional, cognitive, and social. Students’ academic performance data were collected through acontent assessment designed by the project team. In this study, we specifically explored the role of students’ pre-engagement in
-remedial, focusing instead on the mostchallenging topics covered in freshman year calculus, chemistry, and physics. Participation isfree for all students and covers tuition, room and board, activity fees, and travel expenses for theduration of the summer.Participants attend class on weekday mornings and spend weekday afternoons in guidedgroupwork facilitated by upperclassmen (many of whom are former RESP participantsthemselves). The groupwork covers both challenging concepts and the learning strategies neededto succeed in rigorous coursework. Participants choose a “track,” or area of focus during theprogram by selecting a computer science coding project, natural science research, or anengineering design curriculum. Students’ coursework corresponds
was converted to a flipped classroom environment for half of the course material. The mainobjective of this research pilot project is to investigate the impact of video length and videoactivities on the retention and understanding of Gen-Z engineering students for a software-basedsimulation course. Results show that students are more likely to watch medium-length videos thanshort-length videos, but those who do watch short-length videos have better learning outcomes.KeywordsGeneration Z, flipped classroom, engineering education, video length1. IntroductionThe engineering students today are from Generation Z, the cohort of individuals born from 1996-2010 [1]. They are high-efficiency multi-taskers with 8-second attention spans, typically
excellence and innovation in teaching, award- winning scholarship and sponsored research, and professional service at the national, regional and local levels. Creative activities encompass both technical research on geotechnical applications in transporta- tion, and interdisciplinary study of professionalism, ethics, and trust/ trustworthiness in professional-client relationships. A licensed engineer with over 35 years experience in engineering education and practice, Dr. Lawson has provided project management and technical oversight for geotechnical, construction ma- terials, transportation, environmental, and facilities projects nationwide. c American Society for Engineering Education, 2020
studentoutcomes on a compressed summer schedule. Performance in the class as measured by acommon final exam was comparable across sections, and there was no discernable impact of theGPA of student entering the course on the final exam score. While the lack of a validatedassessment instrument and small populations preclude firm conclusions, there is a suggestionthat the practices implemented for this course resulted in desired outcomes for the summer onlineoffering at a level comparable to that of the traditional face-to-face course.The authors are willing to share more detail regarding course structure and contest upon request.AcknowledgementsData analysis for this project was conducted under protocols approved by the Internal ReviewBoard as an Exempt
Assignments/Homeworks: 15% 20% 15% Quizzes: 5% Group Presentation: 5% 5% 5% Exam 1: 30% 30% 30% Exam 2 (final): 40% 45% 45% Project*: 10% * not given in 2010 2010-2013 textbook: book by Joseph Priest, 6th edition, Kendall Hunt Publishing Co. 2014-2016 textbook: book by Joseph Priest & Mario Freamat, 6th edition, Kendall Hunt Publishing Co. Table 1
projects have printed morethan 30,000 fuel nozzle tips in 2018 [2] and GE expects to print more than 100,000 additive partsby 2020 [3]. Engineering components printed by 3-dimensional printers are employed asmechanical structures in an assembly. In order for the printed components to be useful forengineering applications, mechanical properties of printed parts must be known for structuraldesign. The properties provide answers to the strength of the material, the types of stresses acomponent can endure before failure, and the size of a component based on the loads itexperiences. 3D printed materials have recently been studied for their mechanical properties [4,5, 6]. This study was undertaken to further understand the compressive mechanical
programming, and non-linearprogramming.Moreover, in the undergraduate course (ENT 473), just the concepts of the above-mentioned subjects arediscussed.Each course is considered as a regular 3-credit-hour course. Additionally, the course of “Power SystemAnalysis 1” needs to be considered as the prerequisite course for ENT 573. Moreover, the students’ learningassessment will be based on students’ class participation, assignments, written exams, researches, computersimulation projects (just for ENT 573), and presentations.2. The Reasons for Addition of the Courses to CurriculumA considerable portion of energy consumption, carbon emissions, and global warming are related to thetransportation sector. Fig. 1 shows the air pollution in Donora, PA, US, on
of electrospun nanocomposite fibers with variousnanoparticle inclusions: (a) REPS only, (b) 5 wt%, (c) 10 wt%, and (d) 15 wt%.4. Sustainability Training of Engineering Students Sustainability enables engineers to reduce environmental pollution, cost, and use of naturalresources in new designs and products. Due to the limited natural resources and lack of clean water,sustainability should be considered for design and manufacturing. Department of MechanicalEngineering at WSU has over 480 undergraduate and 100 graduate students, and a significantportion of them consider sustainability research projects during their studies. Mr. Polo Osornio-Cornejo (undergraduate student), Mr. Md. Nizam Uddin (PhD Candidate) and Ms. YeshaswiniBaddam (MS
processing methods for 4D printing technology. Starting Smart Materials/ Printing External Form of Future Research Reference Composites Used Process Stimuli Material Produces Barium Titante BaTiO3, Digital electrical charge Investigate Piezoelectric BTO) nanoparticles Projection when stress is coefficient upper limits & polyethylene glycol printing applied and vice their relationship with other diacrylate matrix (DPP) versa parameters. [23
components ofeach lab experiment. The lab manuals were also updated to include the current details andoperations of all the equipment and tools in use.In the third step, a list of viable alternatives to the robot kit was created. The prime objectives ofthis task were cost and time. The robot kit is priced at $80 and some students thought that it wasa hefty sum for a kit that was just used once and had no use for them later on. Instructors and thelab coordinator involved in the redesign project also felt that, for the learning outcome ofworking with printed circuit boards and learning soldering skills, there were cheaper optionsavailable and by creating a choice, students could choose projects that were fun and usable tothem. Two weeks were scheduled
contact angle of carbonized electro-spun nanocomposite fibers with variousnanoparticles inclusion.3.3 Training of Engineering Students Sustainability of engineering education will be the drawing force for the technologicaldevelopment not only in Midwest, but also in the U.S.A. Nanotechnology is one of the leadingtechnology in number of different industries, including transpiration, energy, medicine, defense,electronics and other manufacturing industries, and this technology can address some of the majorconcerns in global water issues. Department of Mechanical Engineering at WSU has nearly 500undergraduate and 120 graduate students, and a big portion of these students considersustainability research projects on environmental issues. During
Paper ID #31998Circuits for a Multidisciplinary Engineering Student MixDr. Harold R Underwood, Messiah College Dr. Underwood received his Ph.D. in Electrical Engineering at the University of Illinois at Urbana- Champaign (UIUC) in 1989, and has been a faculty member of the engineering Department at Messiah College since 1992. Besides teaching Circuits, Analog Electronics, Electromagnetics, and Communica- tions Systems, he supervises engineering students in the Communications Technology Group on credited work in the Integrated Projects Curriculum (IPC) of the Engineering Department, and those who volun- teer via the
involved inManagement - extracurriculars, jobs, workload, numerous activities and sports while alsoBalance and living situation. challenging myself with difficult courses like(TMB) AP World History and AP Chemistry.”Learning Styles Mentioned topic of learning “In school, I've always thought of myself as a(Learning) style, such as visual, project, visual learner and I also felt as if I learned well hands-on, auditory, etc. from hands on work too.”Study Habits Discussion of study habits, lack “Because my courses are paced much faster(Study) thereof, or need to change, than high school courses, I
attendance check, all students in the classare required to take pictures (10 pictures in our project for averaging) through the built-in webcamera. These pictures are used to generate the student face database as a reference for real-timeface recognition. To check the attendance of a student for the class, the computer takes facepictures of the student through the real-time video stream and employs deep learning neuralnetworks to predict whether the student matches anyone in the database, and (if yes) furtheridentifies the name of the student. The result of this face recognition will be used to update theattendance record in the format of an excel file. Fig.1 Architecture of the proposed attendance system2.2 Face Detection
of Maryland, Baltimore County Dr. Wendy Carter-Veale previously served as the Interim Director of AGEP PROMISE Academy Al- liance(APAA). Currently, she is the Internal Evaluator for APAA, Social Science Research Coordinator, and the Dissertation Coach for the Graduate School at the University of Maryland, Baltimore County, and has worked with faculty, graduate students, and administrators at UMCP and UMB. She has been involved with graduate student retention, institutional survey administration, and with AGEP projects as a Dissertation Coach for PROMISE: Maryland’s AGEP, the University of Michigan AGEP, and the University of Pittsburgh’s Pitt STRIVE AGEP. She is a quantitative social science researcher and lead
Paper ID #31204The Wrong Theory Protocol: A Pre-Ideation Technique to EnhanceCreativity and EmpathyDr. Vanessa Svihla, University of New Mexico Dr. Vanessa Svihla is a learning scientist and associate professor at the University of New Mexico in the Organization, Information and Learning Sciences program and in the Chemical and Biological Engineer- ing Department. She served as Co-PI on an NSF RET Grant and a USDA NIFA grant, and is currently co-PI on three NSF-funded projects in engineering and computer science education, including a Revo- lutionizing Engineering Departments project. She was selected as a National
benefits of blending.2 SUMMER 2020 VOLUME 8 ISSUE 2ADVANCES IN ENGINEERING EDUCATIONWorked Example Videos for Blended Learningin Undergraduate Engineering A key aspect of these more innovative blends is the concept of active learning. This is definedby Prince (2004) as activities where students “do meaningful learning activities and think aboutwhat they are doing.” Examples of active learning techniques include group discussion, individualpractice, group-based problem-solving and teaching others. This is contrasted against transmissivemodes of teaching where the instructor projects information that students passively engage with,usually by listening or copying down (Prince