andtraining of military members and veterans who have served on or after September 11, 2001.From its implementation through the end of 2013, the Department of Veterans Affairs (VA) hasrecorded an increase of greater than 200 percent in Post 9/11 GI Bill awardees. Projections arefor this number to continue to grow, reaching two million total beneficiaries by 2020.1 In manycases, engineering and engineering technology programs have not adjusted their student supportservices to serve the rapid increase in these non-traditional students. Failure to understand andmake the most of this non-traditional student population diminishes an outstanding opportunityfor schools to utilize a unique set of knowledge, skills and life experiences that can enhance
project is acritical part of the Ideation Flexibility Project, which is a collaboration with researchers at thePennsylvania State University, Rutgers University, and the University of Michigan, which aimsto help engineers become more flexible in their ideation by investigating interventions thatsupport the production of ideas that range from incremental (more adaptive) to radical (moreinnovative), and all points in between.In the Ideation Flexibility Project, the ideation results of engineering students using threeinterventions are being compared to their ideation results using a neutral problem statement.Neutral problem statements encourage students to generate ideas in their naturally preferredmethod as indicated by their individual cognitive
suggested). Following this Introduction is a descriptionof the process followed to execute the program. The program itself is then described. Finally, theprogram highlights the projects that have thus been funded through the grant program. Thearticle concludes with a summary of the key benefits and challenges of an academic / industrypartnerships in operating a grant program.Description of ProcessThe idea to develop an outreach effort within the CSS started several years before the programbegan to materialize. Casual discussions of implementing an outreach program were generallymet with positive agreement, but serious discussions never succeeded without a specific personbeing tasked with executing the ideas. Professional organizations that comprise
graduate and undergraduate levels. Robin also serves as the Director of Research for the Engineering Leadership Project at the Institute for Leadership Education in Engineering which aims to identify how engineers lead in the workplace.Ms. Annie Elisabeth Simpson, Institute for Leadership Education in Engineering Annie is the Assistant Director of the Institute for Leadership Education in Engineering at the University of Toronto. Her doctoral work focusses on young women and leadership development. She has her Mas- ters degree in Adult Education and Counselling Psychology. Annie teaches courses, designs experiential curriculum, and contributes to the strategic direction of ILead.Dr. Doug Reeve P.Eng., University of Toronto
significant for threedepartments (ASE, CHE, and ECE). Three departments (ASE, ABE, and CHE) offer a two-course introduction to engineering sequence with the remaining five offering a singleintroduction to engineering course. ECE is the only department that offers their introduction toengineering course both semesters. Though there is a push within the college to move towardsproject-based learning design projects for first-year courses, only the ASE, CHE, and MEdepartments currently use project-based learning in their first-year courses. Our initialassessment of FYE courses within the college demonstrated the wide variability of each course.A significant challenge we faced while developing this course related to addressing differencesbetween existing
University, with a joint appointment in Bioengineering. Her research focuses on the interactions between student moti- vation and their learning experiences. Her projects involve the study of student perceptions, beliefs and attitudes towards becoming engineers and scientists, and their problem solving processes. Other projects in the Benson group include effects of student-centered active learning, self-regulated learning, and incor- porating engineering into secondary science and mathematics classrooms. Her education includes a B.S. in Bioengineering from the University of Vermont, and M.S. and Ph.D. in Bioengineering from Clemson University.Catherine D. McGough, Clemson University Catherine McGough is currently a
Paper ID #9247Using Touch Interface Technology for Spatial Visualization TraininDr. Lelli Van Den Einde, University of California, San Diego Van Den Einde is a Lecturer with Potential Security of Employment (LPSOE) at UCSD. She teaches core undergraduate courses in Structural Engineering, is the chair of the ABET committee responsible for the continuous curricular improvement process, incorporates education innovations into courses (Peer Instruction, Project-based learning), is responsible for TA training (preparing next generation faculty), serves as faculty advisor to student organizations, hears cases of academic
? Trajectories are measured atmatriculation, four years later, and six-year graduation for matriculants to the disciplines as wellas all students in the major, including first-time-in-college (FTIC) and transfer students. Theimpact of first-year engineering (FYE) programs is also considered. We focus on the mostpopular disciplines of engineering: Chemical, Civil, Electrical, Mechanical, and Industrial. Inaddition, we have considered Aerospace Engineering given its similarity in curriculum toMechanical and Computer Engineering given its similar curriculum to Electrical. We have begunto work on comparisons of the five most popular engineering disciplines.Project goalsThis project focuses on examining the research question “How do the trajectories of
Engineering (Ph.D. UCLA 2002), and she has several years’ experience in hands-on informal science education, including working at the Lawrence Hall of Science at UC Berkeley. While at Cal Poly Pomona, she taught the first year engineering course, mentored student capstone re- search projects, and introduced nanoHUB simulation tools into the undergraduate curriculum in materials science and engineering and electrical engineering courses. Much of her work has focused on introducing STEM concepts to broad audiences and encouraging students, including women and others in traditionally under-represented groups, to consider graduate school. Four of her former research students are currently in, or have completed, Ph.D. programs
Department of Computer Science at Eastern Wash- ington University, Cheney, WA, USA. His research interests include numerical methods for forward and inverse solutions to partial differential equations with biomedical applications. Prior to his academic ca- reer, Dr. Schimpf was employed as a Senior Principal Design Engineer in the electronics industry, where he enjoyed 15 years of experience developing parallel embedded signal and image processing systems.Dr. Richard H. Crawford, University of Texas, Austin Dr. Richard H. Crawford is a Professor of Mechanical Engineering at The University of Texas at Austin and is the Temple Foundation Endowed Faculty Fellow No. 3. He is also Director of the Design Projects program in
and contributions to a project.Study PurposeThis study explored students’ and practicing engineers’ AE characteristics as they modelobjects using CAD tools. Student participants that modeled objects that they frequentlyuse in their daily lives characterized their modeling activities as contextualized. Theeffect of the contextualized activities on participants’ AE characteristics has beeninvestigated. Statistical analyses were used to compare practitioners’ and students’manifestations of adaptive expertise.Study MethodsThis project has been funded by the National Science Foundation in 2011. Two engineersand two learning scientists have worked together to implement the project activities andreiterate the research design. In each semester for
course team project will be quantified and demonstrated through a game that theteam will design, create, play, and demonstrate. Teams are given full freedom (empowered) to Page 26.507.7 6create/innovate and even to adopt any existing game to suit the project under study. This SCLhas been successfully implemented in more than one course in the MS SustainabilityManagement program. This particular SCL is perhaps one of the most advanced SCL used in thegraduate classes since real world problems need to be well understood to be able to bring theconcepts down to game objective(s), rules, and winning
Paper ID #11460Introducing Kinematics with Robot Operating System (ROS)Dr. Asad Yousuf, Savannah State UniversityMr. William Lehman, Bill’s Robotic Solution William Lehman is President of Bill’s Robotic Solutions which he started in July of 2013. He has had over twenty years of experience in software and hardware development. He has worked on numerous projects in digital communication systems, robotics, and aerospace applications. Mr. Lehman received his Bachelor of Science degree in Electrical Engineering in 1979 from Catholic University of America.Dr. Mohamad A. Mustafa, Savannah State UniversityDr. Mir M Hayder, Savannah
and Computer Engineering Department, Industrial and Systems Engineering (ISE) track. He earned a Master of Science in Electrical and Computer Engineering at the University of Texas at El Paso (UTEP) in 2012. He has worked on a number of projects in the field of Electrical & Computer Engineering, Systems Engineering, Additive Manufacturing and Green Energy Manufacturing. He is the current president of INCOSE UTEP student chapter along with being involved in UTEP Green Fund committee. His research interests are in Systems Engineering & Architecture, Complex systems, Systems testing and Application of Entropy to Complex Systems. Email: sakundi@miners.utep.edu
and manipulating the 3D files, and for running theequipment. Others may need parts fabricated, and rely on a consultation with him to execute thejob. He troubleshoots the equipment and helps solve design problems from the technical side.Details: For a course project the students are given a set amount of material after which they pay$5 per cubic inch of material.Factors for practical managementBoth departments have several key components in common: Support staff – students who take on responsibility for becoming sufficiently knowledgeable about the operation and “care and feeding” of the equipment to assist their peers. Fee for usage – students are required to pay for use of the machines in the form of paying for
. Create! Official festival photo: http://beakerhead.com/References for tips, tricks, and similar projects:1. Arduino. (2015). Getting started with Arduino. http://arduino.cc/en/Guide/HomePage2. Intel Education. (2015). Tools for student-centered learning. Page 26.1119.6 http://www.intel.com/content/www/us/en/education/k12/teachers.html3. E2S2. (2015). U of C Engineering Education Students’ Society. https://e2s2ucalgary.wordpress.com/
latter in 1968. Prior to coming to UT in 1970 he taught for two years at Prairie View A&M as a Woodrow Wilson Teaching Fellow. In 1994 he was named Texas Professor of the Year by the Carnegie Foundation for the Advancement of Teaching and in 1995 he was selected as one of the 10 inaugural members of the Academy of Distin- guished Teachers at UT Austin. Dr. Schmidt received ASEE’s Ralph Coats Roe Award in 1992, and the Chester F. Carlson Award in 2010 for his contributions to development of project-based engineering edu- cation and promotion of educational and professional opportunities for women and minorities. During the past 10 years he has worked actively with the Austin Children’s Museum to encourage
, do students get a job inindustry right away? Do they go straight to graduate school? Do they consider returning tograduate school if they work in industry? Additional post-graduation tracking is implemented tosupplement the results of the follow-up survey.IntroductionSince its inception, the National Science Foundation (NSF) has supported undergraduateresearch. Initially, support for undergraduates participating in research projects was provided aspart of a research grant award. In 1959, NSF began offering the Undergraduate ResearchParticipation Program, which provided summer support “for undergraduate students to work withfaculty on specially designed research projects.”1 In some cases, support extended into theacademic year. The program
Engineering Communication Center (VTECC). Her research interests include interdisciplinary collaboration, design education, communication studies, identity theory and re- flective practice. Projects supported by the National Science Foundation include exploring disciplines as cultures, interdisciplinary pedagogy for pervasive computing design; writing across the curriculum in Statics courses; as well as a CAREER award to explore the use of e-portfolios to promote professional identity and reflective practice. Page 26.1608.1 c American Society for Engineering Education, 2015 Tricks of the
. Additional funding from NSF has allowed the Center to include facultydevelopment learning exchanges between renewable energy faculty in Australia and NewZealand (2013) and Germany and Denmark (2014).C. Recent Accomplishments:1. International Efforts: CREATE submitted and was awarded two NSF supplementalgrants in 2012-2013 and in 2013-2014: one for a faculty study tour in March of 2013 forAustralia and New Zealand (NSF 1239631) and one for a faculty study tour in May and Page 26.1194.2June of 2014 for Germany and Denmark (NSF 1345306). Both of these projects fulfilledthe stated intention in the CREATE Center application (NSF 1002653) to pursue acomparison of
, and type of reflection: how reflection is being operationalized. As aresult of our findings, it is evident that there has been a significant and recognizable upwardtrend in the explicit attention to reflection across the body of the ASEE conference publications.Understanding the trends of reflection across literature can help us further analyze its prevalenceand importance in the engineering education community.IntroductionIn engineering education, there has been an increase in pedagogical approaches that positionstudents at the center of the teaching practice, like problem-based learning, project-basedcourses, and capstone design courses.1,2,3 Such pedagogical approaches often engender reflectionby engaging students in reflection activities
statics are used and understoodin the professional engineering field.Concept inventories (CI) have been defined as, “Multiple choice instruments designed toevaluate whether a person has an accurate and working knowledge of a concept or concepts” [7].For the purposes of this project, this is the best suited definition because, unlike other definitionsof CIs, it states “person” rather than “student.” Note that this project does not focus on students,but rather on licensed civil engineers.Engineering CIs have been broadly used to assess student conceptual knowledge and evaluatethe effectiveness of educational innovations[8]. Conceptual knowledge goes beyond merelyidentifying a concept and spans into the understanding of interrelationships and
an outline of what was expected from the presentation and some instruction on makingpresentations, but they were free to present any material they thought important. Presentationswere required to be submitted beforehand and loaded onto a computer in random order. As aslide listing the team name was projected, each team had to assemble on the stage and begin theirthree-minute presentation. Each slide automatically transitioned to the next slide at a given timeinterval and presentations ended when the next team’s name was projected. This forced thestudents to prepare in advance and focus on those aspects of their design they thought were mostvital. A panel of judges used a rubric in judging the presentations. Figure 1
year of the NationalAcademy of Engineering Gordon Prize for innovation in engineering education, has the goal offostering the development of engineers who have the rare and highly-prized ability to lead anengineering project all the way from concept to a marketable product.Our model for the “Scientific Foundations of Engineering” course seeks to increase theconfidence with which a well-trained engineer can approach an unfamiliar problem and quicklyrecognize the fundamental principles and use them to make “back-of-the-envelope” calculationsabout how large an effect each may have. Even a little bit of this ability to understand the basic Page
) Reaction Rate vs Reaction Equilibrium (Abulencia – 2013; Abulencia -‐ 2014). The focus of this paper is to examine the effect of students both creating and viewing peer-‐generated videos (21 total) of the aforementioned topics. The viewing assignment coincided with the time that particular topic was being taught in lecture and was part of regular homework. The video creation project was assigned to teams of 3-‐4 students as a significant assignment spanning the last 4-‐5 weeks of the course. Each video produced covers only one concept in depth. Students’ learning was assessed via the concept inventory for engineering thermodynamics
remainder of the course focuses on writing specific workplacedocuments: a graphics/page design assignment, a business letter, a technical description, aresume and cover letter, a memo with embedded instructions, a proposal and a technical report.The students turn in each of these documents as an assignment. The instructor grades theassignment, gives feedback, and returns the graded assignment with the feedback to the studentwithin a week of submission. At the end of the semester, the student revises the eight workplacedocuments based on the instructor feedback, and compiles the documents into a portfolio, whichis then submitted as the final project. The documents the students write throughout the semesterand the final portfolio constitute all of
the accuracy of the predictions to identify the students who may fail the course. Inaddition, we identified course components that are important for students’ success in the course.These models are used as a proof of concept to showcase and move toward course-specificprediction models rather than the existing generic ones. The research questions are: • To what extend does accuracy of prediction of students’ success in a course change across Page 26.304.3 the weeks during the semester based on available performance information? • What are the most important course components (e.g., homework, quiz, project, exam) that link to student
afinancial need. The average financial package was $7,659 for full-time students and $5,144 forpart-time students, which, when compared to Table 1, fell significantly short of the overall costsof attendance. Furthermore, in April 2011, the S-STEM project team surveyed all science,engineering, and mathematics majors at SUU. Of the 299 students that responded to the survey,58% were receiving no financial assistance from their families, 50% were accumulating debteach year they attended college and 35% of students had at least one other person who dependedon them financially. In addition, 59% of respondents claimed that the number of hours employedin a job unrelated to their field of study had a negative impact on their academic performance,and 50
deafblind people and communities. While there are time telling devicesavailable in the market, those designs and implementations are inaccurate and exclusive. Tactilewatches allow the user to open the cover of the watch and feel the hour and minutes hand withthe corresponding dots raised to indicate the number. This gives the user a general idea of thetime. Speaking time telling devices operate by announcing the time when the user presses abutton to indicate their need to tell the time. Such devices can go unheard in loud areas and canbe problematic and noisy in a quiet classroom/work environment. Additionally, such devicesserve no purpose for the deafblind people as they cannot hear. This objective of this project is todevelop an inexpensive, user
in a professor exchange, teaching at the Munich University of Applied Sciences. His engineering education interests include collaborating on the Dynamics Concept Inventory, developing model-eliciting activities in mechanical engineering courses, inquiry-based learning in mechanics, and design projects to help promote adapted physical activities. Other professional interests include aviation physiology and biomechanics.Dr. James M Widmann, California Polytechnic State University, San Luis Obispo Jim Widmann is a professor of mechanical engineering at California Polytechnic State University, San Luis Obispo. He received his Ph.D. in 1994 from Stanford University and has served as a Fulbright Scholar at Kathmandu