Brianna is the Teaching and Learning librarian at the Colorado School of Mines. She collaborates with faculty to design and implement information literacy throughout the curriculum. Prior to her work at the School of Mines, she was the Engineering and Computer Science Librarian at the US Naval Academy and a contract Reference Librarian assigned to the National Defense University. She earned her MLIS at the University of Denver in 2011.Ms. Jamie Marie Regan, Colorado School of Mines Jamie Regan is an undergraduate student in Electrical Engineering at the Colorado School of Mines. Her academic journey is intertwined with a personal and passionate dedication to advancing accessibility within STEM fields. Inspired by her
the Ira A. Fulton School of Engineering at ASU. She is now in her third year of guiding the activities of the METS Center and overseeing its staff of primarily transfer students. Ms. Grierson has over 10 years corporate experience in Program Management, Business Development, and Biomechanical Engineering, with products as diverse as air bag systems for helicopters, body armor, and orthopedic implants. She received her Bachelors Degree in Mechanical Engineering from the University of Michigan in 1990, her Masters degree in Mechanical Engineering from Northwestern University in 1994, and a Masters in Business Administration from Arizona State University in 2000
University of Massachusetts in 1997. Prior to joining the faculty at Penn State, he worked at Lord Corporation and Babcock & Wilcox in various engineering and management roles. He has experience teaching Computer-graphics, Quality Control, Mfg Processes, Prod. Design, Lean Mfg, Mechatronics. Page 22.1066.1 c American Society for Engineering Education, 2011 Mini-Projects as Part of a Freshman Seminar For Mechanical Engineering Technology StudentsAbstractFirst year experience courses are mainstays in the curriculum for freshman engineeringtechnology students, as well as
. Her work also focuses on improving access and equity for women and students of color in STEM fields.Janet Yowell, University of Colorado, Boulder Janet Yowell is the Associate Director of K-12 Engineering Education at the University of Colorado’s Integrated Teaching and Learning Laboratory. Involved in the College’s outreach initiative since 2000, she oversees the ambitious K-12 engineering initiative, including the capacity-building and school partnership programs. She is a collaborator on the NSF-funded TEAMS Program (Tomorrow’s Engineers... creAte. iMagine. Succeed.) and the TeachEngineering digital library for which she is a contributing curriculum writer and editor.Jayne Aiken, University of Colorado at Boulder
structures.Oleg Gontar: Conducting research on the effects of a jojoba oil diet on the reverse cholesteroltransport in New Zealand White rabbits.Victor Mejia: Developing an object tracking algorithm for real-time automated video analysis inthe presence of occlusions.Omar Miranda: Studying the effectiveness of ultra violet lighting on greywater purification.Phanit Pollavith: Developing a fragile watermarking scheme that detects and localizes illegalmodifications for digital images/video. The main part of his research will involve developingwatermarking software that visualizes the watermarking embedding and detection process.Ricardo Sanchez: Creating a computer program that predicts the oxidation susceptibility ofprotein cysteine thiols using protein
until November 2003. Antonio started his pursuit of the Doctor of Philosophy degree at the Florida Agricultural and Mechanical University in January 2004 under the supervision of Dr. Reginald Perry. Upon completion of his PhD, Dr. Soares was immediately hired as an assistant professor (Tenure Track) in the Electronic Engineering Technology department at FAMU. Dr. Soares has made many contributions to the department, from curriculum improvements, to ABET accreditation, and more recently by securing a grant with the department of education for more than half a million dollars.Chao Li, Florida A&M University/Florida State University Dr. Chao Li is currently working at Florida A&M University as an assistant
spring, and a German wheel as a slipping (or non-slipping, depending on the simplifications made) disk rolling on a surface. “Dynamics withCircus Laboratory” was designed to explore these connections in a fun, intensive elective course.This course was developed to supplement engineering students’ exposure to dynamics, and togive them hands-on experience doing experiments related to dynamics. Mechanical Engineeringstudents at the University of St. Thomas are required to take a traditional Mechanics course inwhich dynamics is taught, however this new course exposed/introduced students to additionaltopics, such as Lagrangian dynamics, that are not covered in the required class. This paper willdescribe the initial offering of the course, focusing on
to struggle with the program, although progress is still possible inthe on-campus version used in 2009. The on-campus version appears to be very helpful inkeeping students with math ACT scores of 25 and 26 focused on the program, thereby increasingtheir likelihood of success.This project is to be continued over at least the next few years and additional data will begathered on factors impacting the success of the students. The data presented here provided abasis for developing and modifying the program, and future modifications will continue to bemade as the program develops. For example, one planned modification for the 2010 program isto use student mentors, who will be employed to not only help with the engineering projectsportion of the
. The purpose is for students to learn the basics of dimensioning anddrawing before using an electronic method. Then when they create a CAD drawing they candraw on their experience of hand drawing to create the object and dimension it. The handdrawing and CAD skills are further developed when they begin to learn solid modeling.4 Otherinstitutions have elected to teach dimensioning and drawing in a totally electronic format.Engineering students learn the basics of dimensioning in the first-year engineering program atMichigan Tech. At Michigan Tech, there are several engineering majors: mechanical, civil,environmental, biomedical, geological, electrical, computer, and materials. The majors using theASME type approach are: mechanical, biomedical
). The result for each category is summarized as follows. 1) Since big data just became a popular topic in 2013, there is very limited technical information on the Internet. But the team chose the big data category submitted an excellent project report and poster. 2) Cloud computing became a ubiquitous phrase since 2013. There is abundant information on the Internet and five teams chose this category. 3) Self-driving vehicles/unmanned aerial vehicles became an exciting topic after the Google car project was announced in 2010. Currently, several major car manufactures are racing to develop driverless cars. Unmanned aerial vehicles (UAV) also became popular recently with its potential applications; especially
features are rooted in cognitive load theory and the principles of deliberate practice, whichemphasize chunking of information, repetition, immediate feedback, and scaffolding of content[7-10]. By transforming static text into interactive elements, these digital resources engagestudents in ways that traditional textbooks cannot. For example, animations enable visualizationof complex phenomena, while interactive problem-solving exercises provide opportunities forimmediate skill application and assessment [11, 12]. Especially in science and engineering,interactive textbooks can transform content delivery to skill development and thus serve as aneffective learning tool instead of just a repository of information.Recent studies have demonstrated the
Paper ID #49420Gender-Based Performance in a Collaborative Learning Engineering ClassroomHanwei Wang, University of Wisconsin - Madison Hanwei Wang is a PhD candidate in Environmental Chemistry and Technology with a doctoral minor in Cartography and Geographic Information Systems at the University of Wisconsin–Madison. She received her Bachelor’s degree in Environmental Engineering from Dalian University of Technology and then earned an MS in Environmental Health from Johns Hopkins School of Public Health. Building on her teaching experiences, Hanwei developed a teaching-as-research project investigating gender-based
defense contractor to develop advanced ceramic materials, radar, and novel electronic fabrication methods applied to the development of guided munitions, electro-optic imaging systems, and medical devices. At GVSU he created and maintains electronic prototyping courses and co-created the School of Engineering’s professional ethics curriculum. Karl received his Ph.D. in Applied Electromagnetics from the University of Michigan. ©American Society for Engineering Education, 2025 Tuition Equity: Adverse effects of tuition policy on engineering studentsAbstractWhile there has been much research addressing the equity of college access, the equity of tuitionand fees have been less studied. Despite efforts
-determined before I was brought onboard, we did not have theopportunity to exploring bridging across these paradigms during course design and development,which may have led to further challenging conversations.No one knows how to measure ethicsThroughout my first year, I heard multiple faculty members and even external evaluatorsemphasize that ethics is hard to measure and understand. This aligns with significant amount ofliterature which describes how ethics is dismissed within engineering education due to anassumption that as engineers it’s okay to be below required levels of ethics, given that it’s toodifficult to teach and assess (Seniuk Cicek et al., 2025).From my observations of the current course, this belief was observed. In my reflections
plant is designed to bedeployed in tandem with each of the waste processing plants, so it offers multiple capabilities(Table 3). Products can be packaged in plastic pillow bags, Liquibox bags, or bulk bags asneeded. The packaging plant can operate up to 16 hours per day, filling 96 pillow bags/min, 24Liquibox bags/min, and 16 bulk bags/hour.Table 3. Capabili es of the plant developed by the MDL packaging design team.[12]Product Bag Type Capacity (product/bag) Required bags per daySuccinic Acid Pillow bag from ROVEMA Ver cal 13 lbs. 17 Seam SymmetricUltra-pasteurized Liquibox EVOH-Polyethylene bags 6.8 lbs. 15,772Milk with
indicate that effort required for VF tends to decrease.As with most retrospective studies, there is potential for confounding. Since the traditionalcohort was also the first cohort chronologically, there is the possibility that the improvement instudent skill was a result of the instructor’s skill improving rather than VF. A different studywould have to be conducted to illuminate this question. Regardless, VF has been shown to be aviable option for feedback on CAD models.References[1] S. M. Brookhart, How to Give Effective Feedback to Your Students. Alexandria, UNITED STATES: Association for Supervision & Curriculum Development, 2008. Accessed: Jan. 14, 2025. [Online]. Available: http://ebookcentral.proquest.com/lib/miami
that the use of visualization,experimentation, and discussion in the classroom can help bridge this gap and improve studentunderstanding of complex material behaviors.These studies underscore the importance of incorporating hands-on demonstrations and activelearning strategies into the mechanics of materials curriculum. By combining theoreticalinstruction with practical experimentation, educators can enhance student comprehension,engagement, and satisfaction in this challenging subject. This paper builds on these findings byintroducing three innovative, low-cost demonstrations aimed at deepening students'understanding of key concepts such as Ultimate Tensile Strength (UTS) and the angle of twist.These demonstrations not only offer students a
: the Physics Education Research Leadership Organizing Council (PER- LOC), the American Association of Physics Teachers’ Committee on Diversity in Physics, the National Learning Assistant Alliance, and the Access Network. c American Society for Engineering Education, 2018 Examining How Engineering Students Construct Stakeholders and Perceive Harm in Sociotechnical Case Studies1Abstract Engineering ethics curriculum and the research around it often emphasizes micro-ethicalissues such as whistle-blowing and responsible conduct of research with lesser but growingattention to macro-ethical issues such as how engineering practice is entangled with broadersocial, political
leadership bodies: the Physics Education Research Leadership Organizing Council (PER- LOC), the American Association of Physics Teachers’ Committee on Diversity in Physics, the National Learning Assistant Alliance, and the Access Network. c American Society for Engineering Education, 2018 Examining How Engineering Students Construct Stakeholders and Perceive Harm in Sociotechnical Case Studies1Abstract Engineering ethics curriculum and the research around it often emphasizes micro-ethicalissues such as whistle-blowing and responsible conduct of research with lesser but growingattention to macro-ethical issues such as how engineering practice is entangled with broadersocial
color together in order to gain sufficiently largesample populations for statistical tests. This methodologically necessary act functions to erasethe experiences of women of color for the purposes of the method, not for the purpose of betterunderstanding the phenomenon, and runs counter to existing social science research on genderand race. With this project, we are working to develop methods that allow us to “learn fromsmall numbers” of students, as this is what we have in the context of undergraduate engineeringeducation. This paper builds on work introduced at ASEE 2013, where we discussed ourmethodological challenges with data collection and analysis. This current paper describes theanalysis decisions we made in the intervening year, and
Paper ID #42487Engineering Students’ Engagement and Learning Outcomes: A TypologicalApproachDr. Qin Liu, University of Toronto Dr. Qin Liu is Senior Research Associate with the Institute for Studies in Transdisciplinary Engineering Education and Practice, Faculty of Applied Science and Engineering, University of Toronto, Canada. Her research interests include engineering students’ learning experiences, competency development, and career development; student data analytics; and scholarship of teaching and learning.Dr. Greg Evans P.Eng., University of Toronto GREG EVANS PhD, P.Eng, FCEA, FAAAS is the Director of the Institute
introduce scientific and engineering practice in K–12 science educationto help students “understand how scientific knowledge develops and [to give] them anappreciation of the wide range of approaches that are used to investigate, model, and explain theworld.” Central to this practice-and-process focus is encouraging students to share their ideas,and the reasoning behind them, and work together to build deeper understandings of scientificphenomenon and their applications. By eliciting students’ knowledge of science garnered fromexperiences both inside and outside the classroom, teachers can empower students to make senseof the world around them by refining the ideas they already possess through a dynamic processof argumentation, experimentation, and
Paper ID #25719Trash Teachings: How a Materials Science Module Series about Waste canEmpower Engineering Students to be More Sociotechnically ResponsibleDr. Breanne Przestrzelski, University of San Diego Bre Przestrzelski, PhD, is a post-doctoral research associate in the General Engineering department in the Shiley-Marcos School of Engineering, where she innovatively integrates social justice, humanitarian advancement, and peace into the traditional engineering curriculum. Before joining USD in August 2017, Bre spent 9 years at Clemson University, where she was a three-time graduate of the bioengineering program (BS, MS
thinking skills in a more authentic context, less biased and more consistentrating of projects, and more granular analysis of skills [18]. To promote more research using thismethod, Project RAILS (Rubric Assessment of Information Literacy Skills) developed andoffered guidance for implementing rubric-based assessment of IL skills, including collaborationbetween librarians and faculty and customizing rubrics, such as the AAC&U’s Valid Assessmentof Learning in Undergraduate Education (VALUE) rubric for Information Literacy [19], to fit theassignment being evaluated [20].In sum, there is a need for more studies of engineering information literacy skills using rigorousresearch methods, especially at higher levels in the curriculum. The goal of this
clear from thedata shown in Tables 1-3 and BEGINNING SEM ESTERFigures 1 and 2 that the SOEloses the majority of its Figure 1: Per cent (cumulativ e) of Engineering stude nts leaving by semester.students by the end of thefreshman year even though these students have had very limited contact with the engineeringfaculty. Indeed, before 1996freshmen engineering students CUM ULATIVE ENGINEERING M IGRATIONhad zero contact time withengineering faculty. During 25.0the 1995-96 academic year,the Engineering curriculum RATE OF CHANGE (by semester)was modified, in part, to 20.0
) and electro-neural stimulation at Stanford University (PhD, Electrical Engineering).Dr. Kurt M Degoede, Elizabethtown College Professor of Engineering and Physics, Elizabethtown College. His research interests in biomechanics include developing clinical instruments for rehabilitation. Dr. DeGoede teaches upper-level undergraduate mechanical engineering using a Mastery-Based assessment model and design courses and first-year multidisciplinary courses.Dr. Elizabeth Dolin Dalton Assistant Professor of Psychology, Elizabethtown College ©American Society for Engineering Education, 2024 Student Anxiety and Belonging in a Mastery-Based-Learning
disabled students, both those with andwithout formal accommodations, want from their schools and instructors to better accesstheir education. This work describes a range of barriers to equitable access to education, asexperienced by undergraduates in their engineering classes. Additionally, it formalizesdisabled engineering students’ recommendations for university systems and instructors toease the burden the students face.I. INTRODUCTION The population of college students with disabilities is rising each year [1], yet, disabledvoices are largely absent from the literature, so it is important to understand disabled students'experiences in engineering [2]. STEM disciplines in particular are less accessible due to normsand curriculum
introduction. Engineering educators must examine the approach to teachingwriting at the curriculum level.References[1] National Association of Colleges and Employers, “COMPETENCIES: EMPLOYERS WEIGHIMPORTANCE VERSUS NEW GRAD PROFICIENCY”, https://www.naceweb.org/career-readiness/competencies/competencies-employers-weigh-importance-versus-new-grad-proficiency/ (accessed Jan. 29, 2023)[2] P. Sageev and C. J. Romanowski, “A Message from Recent Engineering Graduates in theWorkplace: Results of a Survey on Technical Communication Skills,” Journal of EngineeringEducation, vol. 90, no. 4, pp. 685–693, Oct. 2001, doi: 10.1002/j.2168-9830.2001.tb00660.x[3] D. Rus, “Developing Technical Writing Skills to Engineering Students,” Procedia Technology,vol. 19, pp
Comparison of Differing Credit Hour Allotments for Thermodynamics and Fluid Mechanics CoursesAbstractEach institution determines how many credit hours will be allotted for each course.Thermodynamics and fluid mechanics in an undergraduate Bachelor of Science MechanicalEngineering curriculum in the United States typically are allotted three or four credit hours. Fora semester system, this allows for 42-45 or 56-60 fifty-minute class sessions in three and fourcredit hour courses, respectively.Opinions vary whether thermodynamics and fluid mechanics should each be three credit hours,each be four credit hours, or one should be three and the other four. Two universities haveconducted a study to determine the advantages, disadvantages
Paper ID #15547Writing in STEM: A Synthesis of Two Adaptive ApproachesDr. Teresa L. Larkin, American University Teresa L. Larkin is an Associate Professor of Physics Education and Faculty Liaison to the Pre-engineering Program at American University. She received her Ph.D. in Curriculum and Instruction with emphasis in Physics and Science Education from Kansas State University. Dr. Larkin is involved with Physics Education Research (PER) and has published widely on topics related to the assessment of student learn- ing in introductory physics and engineering courses. Noteworthy is her work with student writing as a