passive, teacher-centered instruction to a more active student-centered learning environment in which theinstructor served more as a subject matter expert and facilitator in the learning process.Assessment of this approach was based on the level of student engagement with adulteducational principles, student performance on the AIC examination, and the quality of thestudents’ PBL submission. Assessments of the PBL submissions were largely gauged to theability of the students to bring forward pertinent questions and to ultimately produce a synthesisdeliverable that included a comprehensive project assessment and bid submission. Elements ofthe final submission have normally included completion of a prequalification statement, aconceptual estimate, a
Generative ArtificialIntelligence (GenAI) tools, notably large language models (LLM) such as ChatGPT, may havereshaped the current educational landscape in the most significant way (Grassini, 2023; Mollick,2024) due to their capacity to enhance academic performances, revolutionizing how studentsapproach assignments and projects. Technical and AI literacies are crucial for everyone intoday's advanced digital landscape, enabling individuals to understand, engage with, andcritically assess the AI technologies that increasingly influence many aspects of daily life, asemphasized by Qadir et al. (2020) and Yang et al. (2024), who focus on essential competenciesand AI literacy, respectively. However, alongside the development of GenAI, a change in
to provide some insight about first-year engineeringstudents' mindsets when identifying, framing, and resolving ethical dilemmas. This informationcan inform ethics education design and development strategies. Furthermore, the experimentalprocedure is designed to provide a curated series of ethical engineering scenarios withaccompanying discussion questions that could be adopted in any first-year classroom forinstructional and assessment purposes. Talk (Engineering) Ethics to Me: Student Group Discussions about Ethical ScenariosIntroduction The past twenty years have seen the blossoming of ethics education in undergraduateengineering programs, largely as a response to the large-scale
material might be extended. Indeed, in our classroom, it raiseddiscussions of frequency-domain representations of images, of numerical measures of harmonyin everyday items, and, later, of the method of JPEG compression for images. This single studentresponse has provided a non-standard application of interest to a large host of non-STEMstudents valid for semesters to come and shows that time committed to the method of contentpersonalization can have a cumulative effect on the course.AssessmentWe are assessing levels of students' engagement and gathering data about students' ability anddetermination to continue applying their knowledge in the years after they complete the course.We have found that interviewed students showed persistence in the
also has a 110-minutecomputer lab course where students learn additional methods for solving these problems usingspreadsheet and drafting software programs. The last meeting of the week is a 110-minuteproject studio class where the students work in small groups to run experiments to collect andanalyze data that illustrates how the lecture concepts are visible in real life. The writingassignments outlined in this paper were interwoven throughout all components of the course.Most ENGR 101 students are in their first semester on campus and about half of the students arethe first in their families to attend a college. They are often unfamiliar with available resourcesand effective strategies to be successful in a rigorous major like engineering
addition, many graduates of engineering programs are finding work in start-upventures and small companies that require the entrepreneurial mindset. Companies arebeginning to realize that business decisions need to include the insight and experiences thatengineers possess.Although the number of entrepreneurship programs in engineering has grown exponentially inthe past decade, little research has been done to systematically examine program models orfaculty beliefs and teaching practices. Most of the research in entrepreneurship education inengineering has centered on descriptions or assessment of individual entrepreneurship programs,courses, or other individual program components.i.e. 2,3,4 The purpose of this study, as part of alarger National
undergraduate and graduate students and (d) theevaluation of the P3E2 program effectiveness using designated assessment tools that weredeveloped and administered to the teachers and students at the middle school.The major findings and the lessons learnt from this P3E2 pilot project were based on assessmenttools that included 1) a STEM content and attitude survey for students, 2) the “Draw anEngineer” assessment instrument for students and teachers, 3) a combined survey on Design,Engineering, Technology (DET) and Tinkering self-efficacy for teachers, 4) a mid-yearassessment by teachers to determine if the project was meeting its goals, 5) an assessment ofstudents and teachers based on an activity designed from materials included in the magazine
, including interactive visual exploration of data in the cloud 9 , optimal resource provi-sioning for large scale MapReduce programs 8 , and privacy preserving techniques for outsourceddata 6,7 .3 CUTE FrameworkThe CUTE framework includes the design philosophy of our labs, the lab environment, and theprocedure of lab development. 3.1 Design PhilosophyLike most computer science courses, cloud computing education should equally focus on both thefundamental principles and practical skills. Students should have opportunities to apply, integrate,and experiment with these principles and skills.Fundamental Principles Among many aspects of cloud computing, cloud systems, data intensivescalable computing, cloud economics, and cloud security&privacy have
Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering EducationProgram incorporates direct assessment measures into the curriculum, the exact effects of thisnew teaching approach will ideally be identified.IntroductionIn fall 2004, Bucknell’s first class of biomedical engineering majors, i.e., the Class of 2007,enrolled in our Introduction to Biomedical Engineering course at the beginning of their secondyear. Up until 2004, this introductory course was taught in a traditional lecture and lab fashionto students majoring in other engineering and science disciplines. As the size of the newbiomedical engineering program is targeted to
results in later courses.5, 6 While ABET learningoutcomes for this summer experience were not assessed, the program certainly meets, if notexceeds some of the ABET criteria. In addition, engineering design can only be fullyexperienced with some sort of realization. Currently, there is almost no other experience that canreplace a fabricated prototype to reveal implications of design decisions while revealingcomplexities and deficiencies within a given prototype or design. Most courses fall short; theyfocus either on the front end of designs or focus too much on prototyping. This summerexperience allowed students to undergo a full design cycle, with the exception of deployment,which was not possible under the circumstance. There are also very few
midshipmen as near-peer mentors and our Academy resourcessocietal impacts caused by the evolution of these technologies, the as a backdrop. To help achieve these objectives, thevariety of tools and techniques currently available and thetradeoffs they present. Specifically, IP based networking, Academy’s STEM Office hosts a series of summer events forsymmetric and asymmetric encryption, onion routing, and secure students that expose them to a variety of hands-on modulesdeletion are all presented to the students. To assess which demonstrate various activities germane to STEMcomprehension and prior knowledge in these areas, a 3-question
Engineering at Purdue University. Since 1999, she has been a faculty member in Purdue’s First-Year Engineering Program, the gateway for all first- year students entering the College of Engineering. She is currently the Director of Teacher Professional Development for the Institute for P-12 Engineering Research and Learning (INSPIRE). Her research focuses on developing, implementing and assessing authentic mathematical modeling problems; this has included teaching assistant professional development.Brenda Capobianco, Purdue University Brenda M. Capobianco is Associate Professor in the Department of Curriculum and Instruction, and School of Engineering Education (courtesy) at Purdue University. She holds a B.S. in biology
fundamentals of engineering at OSU and is interested in the use of VR in engineering education.Ms. Irina Kuznetcova, The Ohio State University I am currently in the 5th year of the doctoral program of Educational Psychology at the Ohio State Uni- versity. My research interests focus on the use of technology in education, including the design, imple- mentation and assessment of technology-integrated curriculum. I have worked with Multi-User Virtual Environments (such as Second Life) and Virtual Reality for my projects, and currently I am pursuing the line of work integrating VR and mobile, desktop and tablet technology to improve students’ visuospatial thinking skills.Ethan Kirk Andersen Ethan Andersen received his
• 131 - Young Investigator Program 7 Supporting the Scientific Foundations of Tech Focus Areas Weapons (Total $31.02M; In-House $11.58M): • High power microwave devices • Lasers and non-linear optics • Energetic materials and combustion chemistry • Thermal science Human Performance (Total $17.57M; In-House $5.66M):Dr. Yueh-Lin Loo at Princeton University • Robust computational intelligencedeveloped a new photovoltaic cell, which
enthusiasmexpressed by the first class was viewed as a result of the small class size, novelty, the hands-onwork, and there were doubts if it could ever be scaled up in size or repeated. Instructor effortswere focused on obtaining support, and finding ways to increase the class size.The course has independently been assessed through usual University of Michigan courseevaluation processes, which involve an anonymous questionnaire. The questions involving thecourse or instructors being excellent are consistently at the top. Anecdotally, we have kept intouch many students and noted that their enthusiasm for the course persists years later, andremarkably, positive comments about this course have started to appear in the surveys of seniors,as shown in Table 2. We
in defining anengineering system (i.e., modeling) in the real-world when they have only a limited amount ofinformation available to them. Defining a system involves specifying the system configuration,geometry, boundary conditions, solution/analysis algorithm. In other words, did the presentationhelp you appreciate the level of detail that a practicing engineer goes through in solving a real-world problem?” (Y / N)Question 9 of the student survey: “The Capstone project is completed in your final year andinvolves fairly large groups in which each student focuses on a narrow area. In addition to this,do you feel that having a small real-world project component at the end of every technicalcourse would be beneficial to you towards improving
the event. Furthermore, assessment of the topics demonstrated would need to be expanded to areas outside of engineering technology to gain insight into how the type of content is related to guest engagement. 5.3 Author Association Disclosure The author is a member of the KSC’s Young Professionals Advisory Board. As described previously, this board is tasked with organizing and executing the adult programming events where the demonstrations above were on display. However, the opinions and conclusions in this article are strictly the views of the author from the viewpoint of an event partner based on the reflections of volunteers that were unaffiliated with KSC. 6. Appendix 6.1 Detailed Demonstration
Cvetkovic, University of Illinois Urbana-Champaign Caroline Cvetkovic is a Teaching Assistant Professor of Bioengineering at the University of Illinois Urbana-Champaign, where she instructs courses in quantitative physiology, biofabrication, and heat transfer. She earned her B.S., M.S., and Ph.D. in Bioengineering at the University of Illinois Urbana-Champaign. She then completed a postdoctoral fellowship in the Center for Neuroregeneration and Department of Neurosurgery at the Houston Methodist Research Institute.Elaine C. Schulte, University of Illinois at Urbana - Champaign Elaine C. Schulte is the Assistant Director of Undergraduate Programs for the Department of Physics and Senior Lecturer at the University of
the owner of a private dam,Rowan University, and the local engineering community. Third-year Civil and EnvironmentalEngineering students have been working with a faculty member to conduct hydraulic andhydrologic analyses and flood inundation mapping, as part of the Engineering Clinic program atRowan. The results of this project are being evaluated by a team of external practicingengineers, and then submitted to the NJ State Dam Safety Section.Involving students in all aspects of the dam evaluation introduces many concepts not included intraditional classroom instruction, such as the ecological benefits (and detriments) of small dams.In addition, students are exposed to the socio-economic and political realities that engineers mustcontend with
from its users (faculty and students) and promptly acted upon, allowing for continual improvement. • The text can make significant use of graphics, animation and audio. Thus we can present “movies” of molecular dynamics simulations to convey an idea of how they work, or how a system behaves. A difficult point can be understood by downloading a small movie of an expert in the field describing the concept. • Large amounts of data (including program listings) can be made available for downloading and analysis by the reader.ContentThe exciting features offered by the Web-based format should not obscure the most importantcomponent of the text: its content. The actual technical content of the book—the breadth anddepth of the
learning experiences for their students that allowedthe students to actually design and build something using the engineering design process thatwould cause students to learn directly the concepts of forces and motion. Once the topics wereselected, teachers identified sub-topics and concepts that became the focus of the series of lessonplans for their modules. An important component of the module development was the design ofa java applet for the simulation element of the Triangulated Learning Model (TLM). The appletswere designed by the teachers and were then given to our programmer to complete and upload toour Web page.Teachers worked in small groups to develop the modules. The format for assessments wasstandardized across modules so student
Page 22.1443.9 Postsecondary Education Commission.8colleges with engineering transfers to UC and CSU in 2008, the average number of transfersfrom a college was 21.3 students (median of 17.0 students). In fact, 71 of the 101 collegestransferred less than 25 students. Based upon the course enrollment analysis above, and givencurrent trends in transfer requirements, it is conceivable that many of these small to medium-sized engineering programs (which accounted for 42% of the total 2,148 transfers) will cease toexist in the foreseeable future. Most sobering is that 44 colleges had fewer than 15 transferseach. In light of the current budget crisis in California, it seems likely that a significant numberof these small engineering programs
challenges includeprofessor met with each student individually to assess their setting clear expectations for all participants, ensuring projectexperience. scope is appropriate and manageable, vetting student participation for proper team or individual alignment, and Student Lesson #1: Students enjoyed the intimate feeling of conducting thorough post-experience reviewsparticipating in small teams with diverse expertise,backgrounds, and experiences. This setting enabled them to Benefits of real business experience: Benefits include betterexpress their opinions in a comfortable environment in which
Colorado Boulder.Dr. Angela R. Bielefeldt, University of Colorado, Boulder Angela Bielefeldt is a professor at the University of Colorado Boulder in the Department of Civil, Environ- mental, and Architectural Engineering (CEAE). She has served as the Associate Chair for Undergraduate Education in the CEAE Department, as well as the ABET assessment coordinator. Professor Bielefeldt was also the faculty director of the Sustainable By Design Residential Academic Program, a living- learning community where interdisciplinary students learn about and practice sustainability. Bielefeldt is also a licensed P.E. Professor Bielefeldt’s research interests in engineering education include service- learning, sustainable engineering
Electrical and Com- puter Engineering and (by courtesy) Engineering Education at Purdue University. She holds a B.S.E.E., M.S.E.E., and Ph.D. in Engineering Education, all from Purdue. Prior to this she was Co-Director of the EPICS Program at Purdue where she was responsible for developing curriculum and assessment tools and overseeing the research efforts within EPICS. Her academic and research interests include the profes- sional formation of engineers, diversity and inclusion in engineering, human-centered design, engineering ethics, leadership, service-learning, and accessibility and assistive-technology.Prof. Brent K. Jesiek, Purdue University, West Lafayette Dr. Brent K. Jesiek is an Associate Professor in the
accredited for the longest term in itsinitial review. In their report, the ABET review team cited our Capstone Experience as one of themain strengths of the EE program. Citing the draft statement from the on-site ABET evaluationteam, The program is located in a metropolitan area having a rich, vibrant and diverse economy that allows many opportunities for industry interaction with both its students and faculty. A wide variety of large and small companies are close to the university, which allows students to work closely with industry on their Capstone projects. The program takes full advantage of the high technology nature of the industry in the metropolitan area in its selection of highly qualified and
theproject to help expand BT instruction beyond the secondary level. Because technical collegeswork closely with the secondary Career Technology Centers, there is a large pool of studentswho desire advanced education and/or technical training.Greenville Technical College offers both associate degrees and certificate programs, including anAssociate’s Degree in Science that included a Biotechnology emphasis. And, among its 35associate degrees were two ABET accredited programs: Mechanical Engineering Technologyand Electronics Engineering Technology that emphasized production and laboratory skills.Geographical proximity was also a factor since Clemson University personnel would developand teach supplemental BT coursework in the initial
who were ofshort stature. Another team worked on a small electronic device that could attach to a water bottle andestimate the amount of water a user drank each day. Another team worked on a more comfortable pillowfor users who slept in different sleep positions.We asked students about their Entrepreneurial identity to assess the extent to which they identified withentrepreneurial concepts. Table 2 summarizes bipolar ladder scores for five distinct questions related toentrepreneurial identity and the perceived usefulness of the class in growing students’ identities and skills.Students' ratings on their current tendency to take risks and be competitive (Risk Rating), showed a rangeof perspectives, with the majority giving moderately positive
for faculty training, the American Society of Civil Engineers (ASCE)developed and funded Project ExCEEd (Excellence in Civil Engineering Education) which iscelebrating its twentieth year of existence. For the past two decades, 38 ExCEEd TeachingWorkshops (ETW) have been held at six different universities. The program has 910 graduatesfrom over 267 different U.S. and international colleges and universities. The ExCEEd effort hastransformed from one that relied on the grass roots support of its participants to one that issupported and embraced by department heads and deans. This paper summarizes the history ofProject ExCEEd, describes the content of the ETW, assesses its effectiveness, highlights changesin the program as a result of the
more test administrations. In addition, there are limits due mainly to the interpretation ofqualitative information. These interpretations depend on individuals familiar with psychometricsand test evaluation.SUMMARY AND CONCLUSIONSA psychometric analysis was conducted for the regular administration of a senior exit given bythe IME Department at Cal Poly for the purpose of program assessment. The analysis evaluatedthe exam for reliability, validity, and other measures of correlation that indicate the overalleffectiveness of the exam. Results were obtained through standard statistical methods used ondata from two years of quarterly exams and a small set of retests.Overall, the scores for individuals taking the test are at an appropriate level