the work of Flanagan et al.'s [5] work-in-progresspaper that examined how adding empathy into first-year engineering curriculum changedstudents’ perspectives on the role of an engineer. Engineering design revolves fundamentallyaround meeting user needs and to offer solutions that meet diverse needs, engineers need tocultivate an understanding of various perspectives. Empathy plays a crucial role in enablingengineers to consider the implications of their design decisions on people thoroughly, andemploying empathy can effectively address sociocultural and political aspects of designs. Thisnecessitates its inclusion in engineering classrooms. Flanagan et al. found that through theincorporation of empathy into the curriculum, students begin to
University is a predominantly undergraduate institution with a College of Engineeringsituated within the liberal arts context. The College of Engineering typically enrolls around 200students each year, currently divided among eight degree programs (Biomedical, Chemical,Civil, Computer, Computer Science, Electrical, Environmental, and Mechanical Engineering).ENGR 100 is the cornerstone course taken by all incoming first-year engineering students, aswell as an introductory elective for students in Arts and Sciences or Management. This course isone of four courses in the common, first semester curriculum for all engineering students.For roughly the first decade from 1989-2001, the course was delivered primarily in a lecture hallwith more than 200
Deana DiLuggo is an Assistant Professor of Educational Leadership in the School of Education at the University of Bridgeport in Bridgeport, Connecticut. Her research has focused on stress and resilience in secondary teachers. She taught high school science for eight years, served as a science curriculum specialist for two years, and as a principal for three years. She has spent the last two years as an adjunct professor in teacher education and was recently appointed as an assistant professor in a hybrid Ed.D. program at the university level. ©American Society for Engineering Education, 2024 Self-evaluation of the Introduction to Scientific Research Course Design Based on the
paper entitled Engineering Leadership: Bridging the Culture Gap in EngineeringEducation [1] we argued that a major barrier to change in engineering education, including theincorporation of engineering leadership into the curriculum, is the culture that exists in ourinstitutions. We proposed that the elements and dynamics of this culture can be examined in theform of co-contraries (or opposites that need each other) and that the relative emphasis in theseco-contraries reflects the engineering educational culture in a department, an institution or inengineering education as a whole. Example cultural co-contraries identified include: the powerdistance dynamic between the student and the professor; the nature of the distribution of effortbetween
social foundations permeating all aspects of the curriculum Social foundations as a subject of academic Social foundations as an element in research professional preparation Rigorous, disciplined study and analysis Desire to effect change in the world Affirming the goals and contributions of the Recognizing the ways outcomes fall short of enterprise ideals 7. Differentiation and integration of multiple perspectives. As mentioned earlier, SFED has fully articulated standards that define and justify the field, which is presented as combining three different perspectives: interpretive, normative, and critical. Both
need for environmental scientistsand engineers to integrate nature as a key component of solutions while developing innovativesolutions to complex environmental problems. The need to use nature in environmental problem-solving is epitomized by investment of $8 billion to restore the Kissimmee River in Florida to itsoriginal state after it was straightened to canal 30 years ago [9]. In another example, the City ofColorado Springs recently publicized its plans to spend $460 million over two decades in itsstormwater infrastructure, maintenance and education programs [10]. Evidences suggests thatecological intensification of agriculture, an integration of nature into environmental solutions,can help sustain agricultural production while minimizing
Expectations Based on the SME Four Pillars of ManufacturingKnowledge. In 2013 ASEE Annual Conference & Exposition (pp. 23-1120).[9] Nutter, P., & Jack, H. (2013, June). An application of the SME four pillars ofmanufacturing knowledge. In 2013 ASEE Annual Conference & Exposition (pp. 23-149).[10] Mott, R. L., & Jack, H. (2013, June). The Four Pillars of Manufacturing KnowledgeModel–Illustrations of Mapping Curricula into the Model. In 2013 ASEE AnnualConference & Exposition (pp. 23-1202).[11] Mott, R, Bennett, R, Gartenlaub, M, Danielson, S, Stratton, M, Jack, H, Kraebber, H,& Waldrop, P. "Integration of Manufacturing into Mechanical Engineering Curricula."Proceedings of the ASME 2013 International Mechanical Engineering
her research, she navigates the complexity of introducing innovative, sustainable STEM practices within varied, particularly rural and Indigenous, educational contexts. Her research interest spans elementary computer science and engineering education, integrated STEM education, and sustainability of teacher PL outcomes.Dr. Nicholas Lux Lux, Montana State University Dr. Nicholas Lux has is an Associate Professor of Curriculum and Instruction in MSUˆa C™s Department ˆ He has of Education. His teaching and research interests are in the area of educational technology.A worked in the fields of K-12 and higher education forPaul
students' knowledge of abstractphysics concepts. A quasi-experimental study also found that the integration of AR movies intoonline teaching activities for physics enhanced students' comprehension of fundamentalprinciples [14]. Similarly, an intervention by Cai et al. [15] showed that AR in physicsclassrooms can increase students' self-efficacy by improving their understanding, higher-levelcognitive skills, knowledge application, and communication.Several AR applications have focused on learning vectors in the context of 3D geometry [16],electric forces [4], gravitational forces [1], as well as other physical forces and their Cartesiancomponents [17]. The study discussed herein details an AR app known as Vectors in Space [18]that was developed by
workforce needs.Table 1. The WPI Plan Orients Students Toward Workforce Needs Traditional Curriculum Curriculum in the WPI Plan Each student is an isolated learner Graduates are part of a team Courses develop long, narrow “corridors” of Professions require integration of knowledge knowledge Students follow rigid, prescribed path – little Total responsibility for setting personal opportunity to set personal objectives objectives Get the “right” answers to structured Ask the right questions in unstructured problems situationsToday, WPI students engage in Major Qualifying Projects in a variety of different ways, such ascompleting a
Paper ID #42234Board 410: Tracing the Evolution of NSF REU Research Priorities and TrendsDr. Yanxia Jia, Arcadia University Dr. Yanxia Jia is an Associate Professor of Computer Science in the Department of Computer Science and Mathematics at Arcadia University. She earned her doctoral degree in Computing Science from University of Alberta, Canada. Dr. Jia’s research interests include data science, machine learning, computer science education and computer networks.Tiantian Wang, The University of Texas at San Antonio Tiantian Wang is currently a PhD student in the Department of Electrical and Computer Engineering at the
to enter and succeed intoday’s world, many leaders are turning to active learning and in particular to more experientiallearning [1]. Integrating experiences into the curriculum that have been traditionally outsidepresents many opportunities and challenges. Community engaged learning is a type ofexperiential learning that adds benefits of engaging students with underserved communitieslocally or globally. Within engineering, the engagement is typically through design projects [2].Community-engaged design experiences place students and universities or colleges inpartnerships with organizations that address needs of underserved people. These partners may bein the local community, within their region, or international. Together, they identify
students have about engineering and engineers. A 2011 study asked students to draw an engineer and interviewed some students about their drawings. They found that most students described engineers as a mechanic, laborer, or technician, with few students describing an engineer as a designer. In addition, students predominantly drew engineers as men[3]. This misconception of engineers and engineering makes it difficult for students to picture themselves as engineers, which means students who may enjoy engineering might not consider it a viable career option. ince the Capobianco et al. 2011 study, there has been an increase in engineering curriculum inSK-12 spaces due to many states
institution.Training Interdisciplinary Scientists –Past Findings and RecommendationsThe need for interdisciplinary (ID) research expertise has been recognized and pursued for morethan three decades (See reports [8] and [9]). “Convergence”, described as the transdisciplinaryintegration of disciplines in research, is now recognized as a key for solving complex scientificquestions to address urgent societal challenges [10]. Convergence is considered an evolution oftransdisciplinary, interdisciplinary and multidisciplinary research paradigms. It exceeds olderparadigms in that convergence leads to the creation of new frameworks for communicating andsynthesizing ideas and integrating diverse expertise to innovate and create new solutions.National Research Council
Paper ID #42819Data Analysis for First-Year Experience RedesignDr. Ryan W. Krauss, Grand Valley State University Dr. Krauss received his Ph.D. in mechanical engineering from Georgia Tech in 2006. His research interests include mechatronics, feedback control, pedagogy, retention, and first-year engineering experiences.Dr. Nicholas A. Baine, Grand Valley State University Nicholas Baine, Ph.D., is an Associate Professor in the School of Engineering. His expertise is in the design of electrical control systems and sensor data fusion. As an instructor, he specializes in teaching freshman courses as well as control systems
. Her research interests include empathy, design education, ethics education and community engagement in engineering. She currently teaches Cornerstone of Engineering, a first-year two-semester course series that integrates computer programming, computer aided design, ethics and the engineering design process within a project based learning environment. She was previously an engineering education postdoctoral fellow at Wake Forest University supporting curriculum development around ethics/character education. ©American Society for Engineering Education, 2024 Student Engagement – IoT-Based Learning Materials and ProjectsAbstractEven with a return to in-person learning by many institutions
campus resources, active listening skills, role boundaries andexpectations, and college and university policies and procedures. EPALs continue their trainingwith 6 hours of online synchronous training in August that focuses on team building, advisingtools, communication skills, university policies, and curriculum details [6].During the fall, EPALs take a 1-credit course called ENGR 291, designed to supplement EPALgrowth and development while creating a space to ask questions while serving as an EPAL.Returning EPALs offer advice and assist newer EPALs in how to answer questions, which helpsbuild a cohesive team. Self-discovery and growth in leadership skills are the cornerstones of theclass. Peer advisers benefit from the program as much as the
students at the epicenter of their learning journey[1][2]. PBL's roots can be traced back to the mid-20th century with the ideas of educationalphilosopher John Dewey. Dewey advocated for learning through experience and hands-onactivities, emphasizing the importance of connecting classroom knowledge to real-worldapplications [3]. In the 21st century, PBL has become increasingly integrated into educationalreform efforts globally. The emphasis on 21st-century skills such as critical thinking,communication, collaboration, and creativity has fueled the adoption of PBL as an effectivemethodology to develop these competencies [4]. The widespread availability and use oftechnology in education has further facilitated the implementation of [5]. Digital
-ChampaignMiss Taylor Tucker Parks, University of Illinois Urbana-Champaign Taylor Parks is a research fellow in engineering education at the Siebel Center for Design. She earned her bachelor’s in engineering mechanics and master’s in curriculum & instruction from the University of Illinois Urbana-Champaign. Her research focuses on promoting teamwork in complex engineering problem solving through collaborative task design. She currently co-leads the integration of human-centered design principles within select courses across the Grainger College of Engineering.Mr. Saadeddine Shehab, University of Illinois Urbana-Champaign I am currently the Associate Director of Assessment and Research team at the Siebel Center for Design
integrate growth in these competencies into future experiences. Due to the lack ofshared curricular requirements across the eighteen engineering majors offered at U-M,incorporating a bookend approach seemed to be a potentially effective strategy. Updating anexisting course in the first year, where some shared curriculum does exist, and implementing anew course in the senior year when most students are completing their senior design experienceand preparing to enter the workforce, proved to be the most feasible.This practice paper primarily provides information regarding the design of these two courses,including explanation of the motivations for implementing these courses and the research basisthat informs the course design. Additionally, we analyze
Paper ID #41135Exploring Effective Pedagogical Approaches for Teaching Linear Algebra toEngineering Students: A Literature ReviewDr. Meiqin Li, University of Virginia Dr. Li obtained her Ph.D. in Applied Mathematics from Texas A&M University-College Station in 2017. Dr. Li holds a strong interest in STEM education. For example, she is interest in integrating technologies into classrooms to bolster student success, creating an inclusive and diverse learning environment, and fostering student confidence by redeveloping course curricula and assessment methods, etc. Beyond this, her research intertwines numerical
, Brilliant Black Minds) could provide students with additionalawareness and practice to feel more comfortable with what to expect. It is our goal that thefindings and recommendations made in this paper encourage other faculty to recognize how theycould further aid in students’ preparation and integrate it into lessons. Beyond that, we hope thateducators and administrators consider possible ways to aid in computing students’ understandingof technical interviews and seek to enhance their graduate employability.1 IntroductionComputer and information technology occupations are expected to explode over the next decade,adding an estimated 377,500 jobs annually, according to the United States (U.S.) Bureau of LaborStatistics [1]. In particular, for
chemical kinetics as an example shown in Table 1. While the LHETM model can be adaptedto traditional lecture-based formats, its strength lies in its ability to weave together active learningand inductive teaching, thereby promoting students’ cognitive and metacognitive abilities. Themodel follows a structured sequence starting with L (Law), followed by H (Hypothesis), E(Experiment), and T (Theory), integrating M (Mathematics) at any stage where appropriate.Depending on the specific focus or requirements of a topic, instructors have the flexibility to adjustthe order of these elements to best suit the educational objectives.Table 1. Guideline of using LHETM model in teaching chemical kinetics. Way of instruction
optimizing building energy performance in Erbil city”, Nature Scientific Reports, 13: 8394.[3] Varas, M.J., Buergo. M.A., Fort, R (2005) “The Influence of Past Protective Treatments on the Deterioration of Historic Stone Facades – a Case Study”, Studies in Conservation, 52, 110-124.[4] Martins, A., Vasconcelos, G., Costa, A.C (2017) “Brick masonry veneer walls: An overview”, Journal of Building Engineering, 9, 29-41[5] Boafo, F.E., Kim, J., Ahn, J.G., Kim, S.M., Kim, J (2021) “Slim curtain wall spandrel integrated with vacuum insulation panel: A state-of-the-art review and future opportunities”, Journal of Building Engineering, vol. 42, 102445.[6] Oh, S.H. (2020) “Curtain wall façade on the new generation of supertall buildings
written by students and those generated by AI. In light of the analysis conducted, thispaper aims to identify and explain the advantages and disadvantages of relying on AI tools andemphasize the need for careful consideration of ethical and pedagogical aspects to ensure aharmonious integration of AI into the educational landscape. Recommendations for best practiceswithin engineering curriculum, as well as samples of assignments are also presented in this work.Keywords: Artificial Intelligence, Enhanced Learning Outcomes, Technical Writing, GenerativePre-trained Transformer, Real-Time Dynamic Feedback.Introduction:The recent noticeable advancements in artificial intelligence (AI) have garnered the attention ofscientists across various fields. One
or in any one ofseveral elective courses the student would enroll in. Programs themselves were also responsiblefor designating a location within the curriculum whereby each item would be assessed as well.Program assessments tend to fall toward the end of a student’s academic career, and many cases,this assessment was handled in one of the capstone courses.Computer ScienceGraduates of the MSOE Computer Science program will have an ability to: 1. Analyze a complex computing problem and apply principles of computing and other relevant disciplines to identify solutions. 2. Design, implement, and evaluate a computing-based solution to meet a given set of computing requirements in the context of the program’s discipline. 3
engineering education, design and manufacturing, automation and robotics, machine learning/deep learning, computational optimization, and mariner and offshore safety.ROBERTO G DIMALIWATPeter Weber, University of HoustonMs. Dua Chaker, University of Colorado Boulder Dua Chaker is a Senior Project Engineer at TeachEngineering- a free online collective of K-12 STEM resources – within the National Center of Women & Information Technology at the University of Colorado Boulder. Dua graduated summa cum laude from the University of Colorado Boulder in 2013 with a Bachelor of Science in Civil Engineering. With a career spanning over a decade, Dua has been an integral part of the TeachEngineering team since 2011. She leads the
% in 2018) [4] in a subject that is critical to the nation’s economic andsecurity health.There is now unprecedented support from business, nonprofit, and community leaders advocatingfor CS education. In July 2022, a letter encouraging governors and education leaders to make CSpart of the standard K-12 curriculum across the U.S. was released with more than 800 signatories(a full list can be found at www.CEOsforCS.com). An excerpt of the letter follows: The undersigned commit our support by collectively creating employment opportunities for CS students in every city in the USA, and in every sector, from manufacturing to banking, from agriculture to healthcare. Many of us offer internships to help these students find their
need to research and implement innovative interventions for retention andcareer readiness of underrepresented students in science, technology, engineering andmathematics (STEM) [1,2]. In 2017, a four-year curriculum was developed to elevate an existingsupport program for undergraduate women in STEM into an academic honors program. Thisrenewed Women In Science and Engineering (WISE) Honors program at Stony BrookUniversity (SBU), a public research institution, recruited its first new cohort in 2018. Thepurpose of this paper is to present formative findings of the research and evaluation plans thatexamined the effectiveness of one of the new courses, WSE 381: Service Learning in STEM.Theoretical FoundationHigh-impact practices, the educational
branches of mechanics. At CBU, MNSU and PNW, MSEand related courses have been designed not only on topics such as crystalline and non-crystalline materials, deformations, alloy types, ceramic types, composite types, etc., but alsoto use the information learned and apply it to materials used in real-world designs. Studentswho took this course were required to write term papers and deliver presentations over real-world design concepts and link the design concept to the course’s teachings. Artificial Organscompleted by Vavek et al (2018) [21] enriches their learning of materials science courses,provides the students with marketable skills, and integrates the use of the real-life engineeringproblems with curriculum. Our experience [9] finds that