Paper ID #33769A UDL-Based Large-Scale Study on the Needs of Students with Disabilitiesin Engineering CoursesDr. Jennifer R. Amos, University of Illinois at Urbana - Champaign Dr Amos joined the Bioengineering Department at the University of Illinois in 2009 and is currently a Teaching Associate Professor in Bioengineering and an Adjunct Associate Professor in Educational Psychology. She received her B.S. in Chemical Engineering at Texas Tech and Ph.D. in Chemical En- gineering from University of South Carolina. She completed a Fulbright Program at Ecole Centrale de Lille in France to benchmark and help create a new
Neurodiverse Students in the Distance Learning EnvironmentAbstractOne of the first large courses that engineering students encounter is Statics, which teachesvarious foundation topics and rigorous assessment schemes. Statics is an important course in thatit gives the student the necessary foundation to further succeed in their education and careers.Re-designs of the Statics course have been proposed to accommodate neurodiverse students,with the prospect that increasing diversity and promoting creative problem-solving skills has thepotential to be beneficial for the Civil Engineering (CE) profession. The objective of this paper isto report a re-design procedure of the Statics course to accommodate neurodiverse students andimprove
for Faculty Affairs and Research. Somerville joined the faculty at newly-founded Olin College in 2001. At Olin, he served on the committee that designed the inaugural curriculum for the institution, and has played leadership roles in strategic planning, as Chair of the Engineering program, and as Associate Dean for Academic Programs and Curricular Innovation. Somerville’s interest in engineering education focuses largely on facilitating change processes and on the application of collaborative design techniques to curriculum revision; in this capacity he has worked closely with a variety of institutions, both nationally and internationally. His educational background includes a Ph.D. and master’s in electrical
. There are 60 students in the overall course, and they are all in the same lecture;they are split between three discussion/lab sections of 20 students each.The course has a large instructional team. Two full-time faculty members, one from the NavalArchitecture and Marine Engineering Department and one from the Program in TechnicalCommunication, share the course organization and the lectures. That communication instructorplus another full-time faculty member from the Program in Technical Communication share thediscussion sections. The labs are run by an Instructional Assistant (a paid undergraduate position;three instructional assistants run the three labs, with one primarily responsible for each one) anda lab manager (a full time staff member
Paper ID #12306Minding the gaps: Comparing engineering research output and library hold-ings at four large universitiesMichelle Spence, University of Toronto Michelle Spence is a Reference & Instruction Librarian at the University of Toronto’s Engineering & Computer Science Library. She holds a HBSc (2004) and a MISt (2007), both from the University of Toronto. She has held positions in academic and public libraries, as well as a corporate setting.Amber Saundry, University of British Columbia, Vancouver Amber Saundry is a Reference Librarian for science and engineering at the University of British Columbia’s (UBC
Investigation of Team Conflicts in a Large-Enrollment Introductory Engineering CourseIntroductionTeam-based projects are widely used in introductory engineering courses to support thedevelopment of collaboration and communication skills and engage the novice engineer in higherlevels of thinking. Conflicts within student teams are common, especially in the first year, wherestudents frequently have had limited experience working on substantial projects that requirecontribution from all team members. Ohland et al. have developed a robust peer evaluationsystem (Comprehensive Assessment of Team Member Effectiveness: CATME by PurdueUniversity) that is widely used in engineering programs—including our institution—to collectquantitative
individual program outcomes,including evaluation of a program’s continuous improvement processes. A successful ABETevaluation indicates a functional, viable, and self-perpetuating program of engineering study. Toprovide faculty with an efficient and effective mechanism for gathering and evaluating programdata, Lipscomb University has developed a syllabus-based ABET assessment and evaluationtool. This tool provides an easily navigable framework to guide faculty though the process ofplanning and conducting individual course assessments, feeding critical, timely information toprogram evaluation and improvement processes, and producing archival records of all courseassessment activities. This paper presents the tool, shows its use in course assessment
faculty effort required to use them; and, on the other hand, proved to be of lim-ited value in assessing the extent to which the program outcomes are achieved by the students andin identifying possible improvements. For example, one commonly suggested approach is to useportfolios of student work 17,13 . However, especially for large engineering programs that graduatemore than a handful of students each year, the sheer volume of data collected via portfolios canbe enormous. While e-portfolios might simplify the task of storing large volumes of data, sinceelectronic storage space continues to become cheaper, and software can help with the organizationof the materials, the task of assessing the information collected and arriving at possible improve
challenges [2]. Studentswork in small groups within and outside of class time that are facilitated by near-peer teachingassistants. Compared to course structures with multiple smaller, faculty-led sections, our modelis more financially and logistically feasible in that it represents a partial-to-full workload for amore limited number of faculty members [1].The success of the large-enrollment FYE course that our group has developed is predicated oninstructional support from cadre of near-peer undergraduate teaching assistants, called peerleaders. As they are undergraduate students who have taken the course within the last four years,peer leaders are intimately familiar with the course content and have personal experience ofworking in an
Paper ID #13814Implementation and Assessment of Required Engineering Exploration As-signments in a First-Year Engineering CourseDr. Victoria E Goodrich, University of Notre Dame Dr. Victoria Goodrich is the Director of the First-Year Engineering Program at the University of Notre Dame. She holds a BS in Chemical Engineering from the University of Oklahoma and a MS and PhD in Chemical Engineering from Notre Dame. Her research focuses primarily on Engineering Education issues, especially focused within the first-year engineering experience.Dr. Leo H McWilliams, University of Notre DameMs. Catherine F Pieronek, University of
Skill by Genderchildhood home and students who spoke non-English languages. Additionally, there was nostatistical difference in assessment scores between students who reported that they have strong orvery strong programming skills and those who did not. This is an important finding that showsthat self efficacy may not correlate to performance with these programming skills beingtested.GenderThe 672 responses were also divided by gender to determine how student scores differed bygender. Four participants did not select a binary gender. Given the small number of participants(<1%), this population was not investigated further. Table 4 contains the distribution of scores formales and females for MCS1 and SCS1 combined. Table 4: MCS1 and SCS1
Colleges 3. They found the degree while surfing the Internet and contacted the advisors and faculty for more information. 4. There were a few responses to full-page newspaper ads. 5. There was no response to radio, local television stations or billboards. What they like about the degree program Page 11.303.2 1. The faculty who put out the extra effort to help them and make the class exciting. 2. The small classes. Some attended other universities where they were a part of a large class consisting of 50 to 100 or more. They preferred 15 to 20 in a class. 3. The fact that faculty taught the course and ran the course
practice (e.g. level control, temperature control,reactor design and process economics).Our first year chemical engineering course sequence herein reported engages a large freshmancohort (around 100 students, at present) in team-based, hands-on activities. Evidence suggestsstudents readily “latching onto” key concepts and various aspects of chemical engineeringthrough this “multi-modal” learning approach. Objectives of this method of program integrationinclude: 1) strengthened retention of freshmen in our chemical engineering program, 2) better“visualization” of chemical engineering concepts among chemical engineering freshmen and 3) astronger sense of the application of STEM topics to the professional practice of
Paper ID #23960Critical Thinking, Design Practices, and Assessment in a Fundamentals ofEngineering CourseDr. Ryan Munden, Fairfield University Dr. Ryan Munden is Associate Dean of Engineering at Fairfield University. He received his PhD in Applied Physics from Yale University and a BS in Physics from Stetson University. His areas of inter- est include semiconductor nanowires, nanotechnology education, first-year engineering initiatives, and engineering service, outreach, and education.Ms. Marcia Arambulo Rodriguez, Fairfield University Marcia Arambulo Rodriguez is the Assistant Dean of the School of Engineering at
Paper ID #27689An Interdisciplinary RET Program: Assessment with Concerns-Based Adop-tion Model (RTP)Jeremy Dylan Smith M.S., Virginia Tech An Engineering Education doctoral candidate at Virginia Tech, Jeremy has both a bachelors and masters degree in mechanical engineering from The University of Oklahoma. He was heavily involved in ex- tracurricular activities there including SAE Baja, Pi Tau Sigma, and other clubs. Through these numerous experiences, he learned to appreciate different ways of learning and knowing, and decided to pursue a philosophy degree in the education of engineering content.Dr. Vinod K. Lohani
predominant. For a small subset of students, a disappointmentwith an engineering department or program, as an institution, itself was expressed as areason for leaving. This was expressed as an experience of lack of organization, poorinstructors, or the need for “more instructors” so that one could get his graded work backin a more timely fashion.Researchers sometimes speak of a “hierarchy” of categories within the outcome space.When studying students who were given texts to read, Marton and Booth noticed thatsome learners focused on the “sign”, e.g., the text that is read, or the problems that aregiven. This was considered by the authors to be a surface approach and has somesimilarity to a surface learning mentioned in engineering education – an
various forms of written feedback, resulted in significant enhancement instudent self-belief in learning abilities.5 Student self-belief and confidence are also linked to thegoals of willingness and ability to engage in life-long learning, which are key educationaloutcomes required by the accreditation process for university engineering programs (asdelineated by ABET, the Accreditation Board for Engineering and Technology). In his 1991book on lifelong learning, P. Candy concluded that self-belief and confidence in their learningability helps students be proactive in assessing their own learning needs, and in acquiringinformation, guidance, and instruction that help meet those needs.6 Clearly, a proactive,independent, and confident attitude will
freshman year. It is comprised of the Ethical Fitness Seminar (EFS) designed to promoteethical culture. Topics include recognizing why ethics matter, understanding trust, and taskingleadership with trust, defining ethical values, and analyzing and resolving dilemmas [6].Learning outcomes for both freshman seminars are assessed via written essays, and small groupdiscussion of ethical issues. Discussion and essay topics include: Abuse of power, Conflictbetween mission accomplishment and duty, Whistleblowing, Cover-ups, Institutional loyalty,and Conflicts between honor and justice [6].In the second year students take the LDRS 201 sophomore seminar. In this one semester longclass, students learn about leadership by reading and discussing real life
Paper ID #30317Impacts Resulting from a Large-Scale First-Year Engineering andComputer Science Program on Students’ Successful Persistence TowardDegree CompletionDr. Gisele Ragusa, University of Southern California Gisele Ragusa is a Professor of Engineering Education at the University of Southern California. She conducts research on college transitions and retention of underrepresented students in engineering and also research about engineering global preparedness and engineering innovation. She also has research expertise in STEM K-12 and in STEM assessment. She chairs USC’s STEM Consortium.Dr. Emily L. Allen, California State
Paper ID #41107Board 75: Can Small Changes in Course Structure in Early EngineeringCoursework Have a Big Impact on Retention?Dr. Laine Schrewe Ph.D., Otterbein University Dr. Laine Schrewe is an Assistant Professor in the Department of Engineering, Computer Science, and Physics at Otterbein University. Before transitioning to this role, Laine designed engines for Honda Research and Development for 9 years and then transitioned to education to develop a high school engineering program that she taught for 8 years. She is passionate about improving the educational experience of diverse populations in engineering programs and
features an iterative design opportunity because problemsolving is a process that students must experience iteratively.10 Such an experience allows for aperiod of design activity, a period of growth and reflection, and a follow up period of "higherlevel" design activity. Because troubleshooting existing processes is quite different than designinga new device or process,2 the follow-on design activity would ideally entail an advanced phase ofthe same project that involves troubleshooting flaws in their first design activity. In addition, thismultiyear design project would allow for the assessment of teamwork and communicationsthroughout the students' engineering program, not just during the last semester – which isessential for student development
succeeding in a continuous working world that doesn’t assign an end-‐of-‐project grade. Teaching students how to perform peer review and how to utilize constructive criticism for improvement is essential for their future. Yet despite the long-‐term benefits recognized by academia, students are largely unfamiliar with peer review. Sitthiworachart and Joy9 reported that of their 215 first-‐year students taking a computer programming course, 89% of them had not ever experienced peer review prior to the start of the course. Guilford10 found that only 39% of undergraduate engineering students understood peer review as it related to scientific
her college, Bailey teaches energy-related courses and serves as a mentor and advisor to undergraduate and graduate mechanical engineering students who are involved in her research. Bailey teaches courses related to thermodynamics, engineering and public policy, and design. She is actively involved in curricular development and assessment activities, ranging from individual courses to college and institute-wide programs. Bailey and her graduate students conduct research in thermodynamic analyses of complex, energy-intensive systems such as coal-fired power plants and commercial refrigeration plants.Prof. Stefi Alison Baum, Rochester Institute of Technology Carlson Center for Imaging ScienceProf. Sharon Patricia
Paper ID #8854Poll Everywhere! Even in the Classroom: An investigation into the impact ofusing PollEverywhere in a large-lecture classroomDr. Wendi M. Kappers, Embry-Riddle Aeronautical University Wendi M. Kappers has a Ph.D. in Instructional Technology from the University of Central Florida (UCF). Her thesis work explored how educational video game effects upon mathematics achievement and mo- tivation scores differed between the sexes. During her tenure at Seminole Community College working as a Tenured Professor and Program Manager of the Network Engineering Program, she was Co-PI for the CSEMS NSF grant that explored
AC 2011-2271: ESTABLISHING THE FOUNDATION FOR FUTURE OR-GANIZATIONAL REFORM AND TRANSFORMATION AT A LARGE PRI-VATE UNIVERSITY TO EXPAND THE REPRESENTATION OF WOMENFACULTYMargaret B. Bailey, Rochester Institute of Technology (COE) Margaret Bailey is Professor of Mechanical Engineering within the Kate Gleason College of Engineer- ing at RIT and is the Founding Executive Director for the nationally recognized women in engineering program called WE@RIT. She recently accepted the role as Faculty Associate to the Provost for Female Faculty and serves as the co-chair on the President’s Commission on Women. She began her academic career as an Assistant Professor at the U. S. Military Academy at West Point, being the first woman
affordable and havelow maintenance cost in order to purchase sufficient number of robots for large programmingclasses and also keep the sustainability of the program over a long period of time.The computer science program at Fort Valley State University has recently implemented limitedrobotic activities in the curricula of introductory programming classes in attempt to motivatestudents in programming subjects and also reduce the attrition rates in these classes. Afterevaluating several different robots in summer 2018, the computer science faculty decided to usethe Finch robot for all of its introductory programming classes because of a number ofinteresting features that robot possesses as stated in the next section.Finch RobotUnder a license from
students, lies in understanding the impact ofvarious factors on educational attainment. [61], [62], [63], [64], [65] The concept of educationalattainment will be defined in this study as remaining enrolled in higher education and completinga degree [66], [67]. This achievement is influenced by various factors, including academicperformance in coursework, social background, and the individual's personal circumstances [66],[68], [69]. Increasing diversity and degree attainment in engineering programs largely depends onthe pursuit and attainment of bachelor’s degrees in engineering by underrepresented groups, suchas Black and Hispanic students [73], [74], [75].The research gap in studies on vertical transfer students in engineering is partly driven
Paper ID #12226Defining and Assessing Global Engineering Competency: Methodological Re-flectionsProf. Brent K Jesiek, Purdue University, West Lafayette Dr. Brent K. Jesiek is Associate Professor in the Schools of Engineering Education and Electrical and Computer Engineering at Purdue University. He is also an Associate Director of Purdue’s Global En- gineering Program, leads the Global Engineering Education Collaboratory (GEEC) research group, and is the recipient of an NSF CAREER award to study boundary-spanning roles and competencies among early career engineers. He holds a B.S. in Electrical Engineering from Michigan
Paper ID #44493Using a Systems Engineering-based Approach to Run a Large Project-basedProgram: Lessons Learned Over 12 Years of EducationProf. Matthew Erik Nelson, Iowa State University of Science and Technology I am an assistant teaching professor at Iowa State University My background and interests are in RF, embedded systems in aerospace applications, and engineering education. I serve as the director of the Make to Innovate program at Iowa State University and as the assistant director for Iowa Space Grant Consortium.Mrs. Christine Nicole Nelson,Mason Henry, Iowa State University of Science and Technology
. Page 12.881.1© American Society for Engineering Education, 2007 Individual Course Assessment as a Core Assessment ToolAbstractThe mechanical engineering program conducts assessment activities largely based on thedescriptions and timelines set up in the plan to foster excellence in engineering education. Someassessment activities, such as maintaining student portfolios, require an enormous amount ofresources, expertise and time to fully implement and effectively utilize the assessment tools forevaluating students’ academic performances. Like almost all small engineering programs facedwith the full compliance of the ABET 2000 Criteria, the program decided to select a fewassessment tools that can be effectively used and managed by a