inferencesto inform actions and changes to achieve a goal, which for this project is improving studentsuccess and retention in early STEM courses [1]. Learning analytics is an emerging approach tomotivating STEM faculty to implement evidence-based teaching practices.The project also builds and strengthens faculty communities and develops a culture of inquiryand conversations that are data-informed – all to build readiness for transformation. We areexploring how a change framework for intentional capacity building by creating facultycommunities with similar interests across disciplines and course-level data dashboards canestablish the foundation for implementing change in their instructional practices and curriculum,with faculty members becoming change
implemented to help address challenges fromboth project development and practical perspectives, with the goal of enhancing participants’ability to effectively use institutional data in their S-STEM proposals and other efforts withsimilar goals. The project goal is to enhance the capacity in faculty PIs’ use of institutional datain support of their S-STEM proposals. In particular, the project seeks to increase faculty PI’sknowledge of and confidence in using data to better understand their institution’s STEMenrollment, retention, and graduation landscape for low-income students with academic potentialand ability. Thus, the project objectives are to: 1) develop and implement a virtual workshop series focused on the institutional student data
intersection of1. INTRODUCTION technology and liberal arts [13].’” Recent liberal arts Reports such as Rising Above the Gathering Storm and graduates also have a higher unemployment andits follow-ups by the National Academies highlight an underemployment rate (60%) versus engineering (25%) orurgency to develop and retain a homegrown workforce in math and computing (35%) [1] and as such, are ascience, technology, engineering, and mathematics significant pool of potential talent.(STEM), especially historically underrepresented groups, Meanwhile, at Stevens, there has been a shift tosuch as women, due to global competition for science and fulltime
Mechanical Engineering) participated in this program, assisting in the transitionand ensuring academic/career success by enhancing transfer students’ sense of belonging, andaddressing course content gaps between institutions. From the analysis of the pre-/post-surveysof the Engineering BRIDGE Program, the program significantly improved—in terms of transferreadiness—students’ conceptual understanding, technical communication, and higher-ordercognition.IntroductionIn the U.S., approximately 47% of graduating engineering students received their universitydegree after transferring from a community college [1]. However, the State of California, whichhas the largest four-year public university system in the United States, does not have anAssociate Degree
strengths of developingprograms that foster critical thinking, problem-solving, and analyticalreasoning skills using strategies like the engineering design process (EDP) [1],[2]. By engaging in these programs, students learn to apply conceptualknowledge from science and related subjects, including engineering, to solveopen-ended and ill-defined problems creatively [3], [4]. These skills can alsoprepare autistic students to succeed in real-world contexts [5]. We createdengineering maker clubs in public schools across New York City to provideinclusive spaces for elementary, middle, and high school students. We aimedto enhance co-designing and develop technological knowledge andengineering skills in autistic and non-autistic students. These clubs are
Engineering Education, 2023 1 Connecting Classroom Curriculum to Local Contexts to Enhance Engineering Awareness in Elementary YouthProject OverviewThis paper reports on the year three findings of a National Science Foundation Research in theFormation of Engineers project focused on increasing rural and indigenous youth’s awareness ofengineering and engineering related careers. To reach this goal, we worked with elementaryteachers to connect the engineering activities taught in the classroom with local funds ofknowledge and local engineering opportunities (Hammack et al., 2022; Hammack et al., 2021).Each of the four participating
are expected to address a gap in the literature regarding the role of industry and academiain shaping early-career engineers’ adaptability and provide guidance to organizations anduniversities about how to best facilitate engineers’ adaptability development. Future work willevaluate specific strategies and interventions to address this issue.IntroductionSignificant social, economic, and technological shifts have profoundly transformed the work andcollaborative practices of contemporary engineers [1, 2]. Present-day engineers must adjust tocontinuously evolving job requirements and tackle progressively intricate and ambiguousproblems that demand innovative and interdisciplinary solutions [3]. Adaptability, defined as theability to respond
institute. Research findings indicated that teacherparticipant knowledge, attitudes, computer self-efficacy, and teaching self-efficacy increasedslightly after the summer professional development institute.KeywordsRobotics, Machine Learning, Artificial Intelligence, STEM persistence and engagement forunderrepresented minoritiesIntroductionTo promote economic competitiveness and advance health, prosperity, and welfare, it isimportant for our youth to gain skills and knowledge in science and engineering. Few studentsfrom traditionally underrepresented and underserved areas in rural districts pursue careers in thescience, technology, engineering, and mathematics (STEM) fields [1], [2].This project entitled “RET Site: Project-Based Learning for Rural
participants, and communicating with the WySLICE team to be of most value. Participantsalso noted the program successes and provided recommendations for the design and format of the five-dayprofessional development.WySTACKThough a cumulative external evaluation report is not available as of the time of this work, an externalevaluation, again conducted by the University of Cincinnati focused on several key questions. Informa-tion from several of their reports are reproduced here verbatim.To what extent are RET activities effective in supporting educators’ increased content knowl-edge of computer science (CS)?1. Participants had a high level of understanding in CS with a 89% accuracy rate on knowledge items.2. Participants reported an increase from pre to
Center for Teaching and Learning. She practices mindfulness meditations rooted in Theravada Buddhist tradition and has been incorporating mindfulness practices in her classes since 2019. ©American Society for Engineering Education, 2024 Learning Map Framework to Align Instruction and Improve Student Learning in a Physics-Engineering Mechanics Course SequenceMotivationPrerequisite course sequences are ubiquitous in post-secondary engineering education [1]. Forundergraduate students to succeed in their degree, they must retain and transfer learning fromtheir prerequisite coursework into new and more advanced learning contexts. If knowledgetransfer is incomplete, students may struggle in subsequent
instructional techniques, using think-aloud interviews and video analysis. She has an EdD from the University of Massachusetts in Science and Mathematics Education Research. She also has an MA in Liberal Studies focusing on physics education research and educational technology, and a BS in Physics, both from SUNY Empire State College. ©American Society for Engineering Education, 2024Supporting Secondary Students’ Engineering Front-End Design Skills withthe Mobile Design StudioIntroductionToday’s young learners face a future riddled with challenges, including access to clean water [1],increasing biodiversity loss [2], and climate change[3]. These challenges are particularly thorny becausethe underlying problems
architecture, interconnection networks, machine learning, embedded systems, and engineering education. ©American Society for Engineering Education, 2024 Electrical and Computer Engineering Canvas Applications to Improve Fundamental Math Skills in Pre-Calculus MathMathematics is the common language across STEM fields. Thus, math proficiency can become abarrier for students entering college and those aspiring to earn STEM degrees. Deficiencies inmathematical skills have been considered the major contributing factor to STEM attrition [1], [2],[3], [4]. Given the importance of math preparation, postsecondary institutions typically vet the mathskills of incoming students and assign those who score
Math Skills with Railored Activity-Based Instruction’ project funded by the National Science Foundation (NSF). Through her efforts, she actively works towards bridging the disparity between high school preparation and expected standards of civil engineering.Dr. Jacimaria Ramos Batista, University of Nevada, Las Vegas ©American Society for Engineering Education, 2024 Improving Fundamental Mathematics Skills in Pre-Calculus Math Using Placed-Based Engineering Canvas ApplicationsRecent studies have shown that the average retention rate at US engineering schools is 56%, andas much as 20% lower for underrepresented minorities [1]. More notably, about 40% of STEMstudents end-up switching their
Southern NevadaDaniel Sahl, University of Nevada, Las Vegas ©American Society for Engineering Education, 2024 Improving STEM Student Fundamental Math Skills with Tailored Game-Based InstructionThis research focuses on an intervention for mathematics remediation for all engineering andcomputer sciences majors at University of Nevada Las Vegas (UNLV) and STEM students (pre-engineering and pre-science) at College of Southern Nevada (CSN). During the 2020-2021academic year within a Southwest School District, out of the vast majority of undergraduatestudents entering UNLV and CSN, only 21% of high school students scored at the proficientlevel in math [1]. These numbers were exacerbated
stepstoward measuring impact of other experiences (e.g., undergraduate research, internships, servicelearning) and courses (e.g., humanities, social science, and business courses) on the developmentof ethical practices on assessments taken in senior engineering capstone courses.IntroductionThere are numerous documented instances of ethical misconduct across the fields of science andengineering [1, 2]. Authors have noted the importance of educating scientists and engineers inethical behavior [3, 4]. Some accrediting bodies (e.g., [5]) include the teaching of ethics in theiraccreditation requirements. Even given these requirements and significant implications of ethicallapses that resulted in the loss of life [6, 7], some note that ethics is not a
Texas A&M UniversityAbstractThis paper presents the progress made in the first two years of a five-year NSF ER2 (Ethical andResponsible Research) project on ethical and responsible research and practices in science andengineering undertaken at a large public university in the southwestern United States. Overallobjectives of the project include: 1) conduct a survey of incoming freshmen college students toassess their ethical research competency and self-efficacy at the beginning of their tertiaryeducation and during their senior-level capstone course; 2) evaluate the ethical researchcompetency and self-efficacy of university students and identify any significantly contributingfactors to develop an intervention plan to improve their ethical
reporting and conducting evaluative research for a CASEL certified program. Dr. McGhee currently works in the office of Institutional Research & Analysis at the University of Pennsylvania.Dr. Zafer Hatahet, Embry-Riddle Aeronautical University, Prescott ©American Society for Engineering Education, 2024 Co-teaching in Undergraduate STEM Education: A strategy to enhance the learning and teaching environment in Math, Physics and Engineering Courses Burcu Ozden1, Andrei Blinkouski1, Matthew Fury1, Michael Kagan1, John Majewicz1, Laura McGhee2, Zafer Hatahet3 1 Science and Engineering Division, Penn State
programs (#0849881 and #1458714) [1, 17,20,]. New York City College of Technology (City Tech), the designated college of technology inthe City University of New York (CUNY) system and a Hispanic Serving Institution, ranks 16thamong public schools and 18th in social mobility according to US News and World Report [3].Around one-third of our students self-identify as Black (non-Hispanic, 28%) and as Hispanic(34%); along with 21% as Asian/Pacific Islander, 11% as White (non-Hispanic), 2% as Other,and 4% as non-residents [19]. Eighty percent (80%) of incoming first-year students and 67% ofcontinuing students receive need-based financial aid. Fifty-five percent (55%) of students reportworking 20 or more hours per week while more than 61% report
toward their careers, along with high-impact practices to support them.IntroductionTransitions “in, through, and out” of the university system are challenging for students [1].Students may face challenges that include, for example, passing a class, keeping up with familyor social commitments, or holding a concurrent part-time job. These challenges can negativelyaffect student attrition [2]. Even with so many barriers, there is an increasing number of studentswho have been able to persevere and obtain a meaningful career [3,4]. However, there aredisadvantaged communities of students who are especially challenged to overcome the expectedand necessary student transitions.Schlossberg in “A model for analyzing human adaptation to transition” has
mechanisms that support engineering identity formation.BackgroundIn the United States, rural settings are an important and frequently under-resourced and under-researched [1] cultural context for education, despite the fact that approximately half of schooldistricts, a third of schools, and a fifth of students in the United States are located in rural areas[2; 3]. Rural students are underrepresented among college attendees and STEM majors [4; 5].Programs aimed at professional engineering formation among rural students may help close thisgap. To design effective programs, a greater understanding of the formal and informal processesand value systems by which K-12 students explore the engineering pathway is needed—including development of identity as
demographic data.IntroductionCAD tools are pervasively used throughout the product development process in manyindustries 1. Consequently, today’s engineering students will go into a professional fieldwhere they need to adapt to the new challenges of working with these tools as part of theburgeoning model based enterprise 2. Prospective engineers should have diverseexperiences and skills to effectively use the CAD software. These experiences shouldalso be more authentic3 and entail using CAD to meet design objectives4.With CAD tools students use their knowledge and skills to create models and adapt tonovel problems. These tools can support students to attain a level of expertise if a deeperpractical knowledge is taught. However, most available CAD
-risk for academic disqualification. Thisprogram was aimed at these at-risk first and second year students.In the Summer of 2015, 26 students were chosen to participate in a one-week science exploratorysummer program in Chemistry, Engineering, and Mathematics. The program involves a threeand a half day exploratory workshop in one of the three disciplines, led by an experiencedfaculty member, and concluded with a half-day career workshop conducted by the UniversityCenter for Career Education and Community Engagement. This workshop program was modeledafter previous work that has been shown to increase interest and retention in science andengineering disciplines for underrepresented minorities [1] [2]. The major focus of the programwas to use
State University and Florida Gulf Coast University. c American Society for Engineering Education, 2016 Integrating a Faculty Summer Workshop with a Faculty Learning Community to Improve Introductory STEM CoursesAbstractThe STEM Professional Academy for Reinvigorating the Culture of Teaching (SPARCT)Program at Florida Gulf Coast University (FGCU) combines a 36-hour May faculty workshopfollowed by an academic year-long faculty learning community (FLC) focused on evidence-based teaching practices. Participants teach introductory STEM courses and commit to 1)actively participating in both the May workshop and academic year FLC, 2) implementingchanges in their introductory course based on one or
national ASEE teaching awards, and is internationally recognized in his primary research field.Dr. Temesgen Wondimu Aure, University of Cincinnati TEMESGEN W. AURE, Ph.D., is the STEM Program Coordinator working under Dr. Kukreti on the NSF Type 1 STEP and S-STEM Projects in the Department of Biomedical, Chemical and Environmen- tal Engineering at the University of Cincinnati (UC), Cincinnati, Ohio, USA. Temesgen joined UC as a graduate student in 2008 Fall and completed his doctoral degree in Civil Engineering in 2013. He started working on his current position at UC in January 2014. He plans, designs, evaluates and modifies pro- grams supported by the NSF Type 1 STEP and S-STEM Grants in the College of Engineering and
26.423.1 c American Society for Engineering Education, 2015 CREST Bioenergy CenterAbstractBiomass ranks fourth in world-wide resources for energy following oil, coal, and natural gas.The production of energy from biomass has been recognized as an important step towardssustainable energy development. In recent years, most of the attention for renewablehydrocarbon biofuels has focused on cellulosic ethanol.1 However, thermochemically derivedbiofuels have a number of advantages over cellulosic ethanol including flexibility in choice offeedstock, use of whole biomass, and the ability to produce drop-in transportation fuels. As aconsequence of the lower investment in thermochemical biofuels
S-STEM project “HumanConnect” is aligned withthe Humanitarian Engineering Scholars (HES) program in the College of Engineering andsupports scholarships of up to 4 full years for academically talented students who demonstratefinancial need, enabling them to enter the STEM workforce or graduate school following STEMdegree completion. Our two main goals are to 1) Positively impact the retention and graduationof Engineering students with financial need and 2) Improve academic performance relative to acontrol group (selected from another scholars’ community, Green Engineering Scholars or GES).In the first year of the award (2013-14), scholarships were granted to a first cohort of 15 students(11 first year and 4 second year). In the second year
contaminated sites, sustainableunderground construction, and beneficial reuse of byproducts in geotechnical engineeringapplications. The REU program at Cal Poly is designed for the student participants to achieve thefollowing learning outcomes: (1) design, conduct, and document a research experiment; (2)function effectively in a multi-disciplinary research team; and (3) document both the technicaland experiential aspects of the research experience.The undergraduate participants need to demonstrate effective communication skills to succeed inattaining all three program learning outcomes. Even if a student can succeed at conductingexperiments and may succeed in discovering breakthrough findings in her/his field of research,the long-term value of these
physiology. Dr. Quick promotes student learning and success through incorporating evidence based instructional approaches into both the large lecture and laboratory courses, including active learning techniques that foster student interaction. c American Society for Engineering Education, 2016 Enhancing STEM Education at Oregon State University – Year 2ESTEME@OSU and the Theory of ChangeIn this paper, we update progress through the second year of the NSF WIDER fundedESTEME@OSU Project. The ESTEME@OSU Project is summarized below, and more detailcan be found elsewhere.1 ESTEME@OSU seeks to catalyze broad institutional change throughscaling and cross-pollination of efforts utilizing two evidence-based
education methods for exploring how to engage andevaluate Navajo students in culturally-contextualized engineering design curricula. Under thetheoretical frameworks of social constructivism and culturally relevant pedagogy, this studyproposes to: (1) explore the ways in which Navajo students and Navajo professionals experienceand understand engineering design in the context of their culture, community, and societythrough a phenomenographic approach; (2) conduct a design-based research study on thedevelopment of culturally-contextualized theory of learning and curriculum modules that will bepiloted in several schools in the Navajo Nation; and (3) create and pilot tools to evaluate Navajostudents’ experience of engineering design. The primary