Paper ID #41557Board 194: Advancing Access, Diversity, Equity, and Inclusion in STEM forMinoritized Students Through Faculty Professional DevelopmentDr. Pheather R. Harris, University of California, Irvine Dr. Harris has worked in postsecondary education for over two decades in various capacities. She began her career at Santa Monica College as a counseling aid at the Extended Opportunities Programs and Services office prior to her role as an Assistant Director of Admissions at the University of Southern California. She then moved to Cambridge, MA to pursue her Master’s Degree in Higher Education, with a focus on Risk and
engineering is what makes it smore difficult to understand.” As shown in the qualitative data, students mostly emphasized concern that it is not thecontent that is complex; instead, it is the amount of content relayed in the course and the limitedopportunities to engage in dialogue. The response from this survey further demonstrates thatthere is difficulty in translating academic concepts into practical problem-solving approachesrelevant to the complex challenges they may encounter in their future engineering careers if thereis not ample opportunity to apply and discuss conceptual knowledge. These insights provided bythe student comments highlight students’ perceived need to receive additional opportunities tocritically analyze the
to approach problemswith a holistic view, make decisions based on evidence, collaborate effectively in teams, andlearn from setbacks. Laboratory work plays a crucial role in shaping the professionaldevelopment of university engineering students as it enables them to cultivate these essentialpractices [1, 2]. A successful laboratory task design should provide students opportunities todevelop these practices but also needs to adhere to the constraints of the educationalenvironment.In this project, we explore how both virtual (simulation-based) and physical (hands-on)laboratories, based on the same real-world engineering process, develop the practices studentswill need in their future careers. In an engineering virtual laboratory, students work
colleagues in147 the AFL. Therefore, the AFL can be potentially expanded to other institutions to help all148 students succeed in STEM classrooms and careers, crucial to academic and social growth.149 Hopefully, the AFL will help increase the national STEM literacy and be applied to non-150 STEM majors.151152 Abbreviations153 STEM: Science, technology, engineering, and mathematics; AFL: Active Flipped Learning;154 HBCU: Historical Black Colleges and University; JSU: Jackson State University;155 ELI: Engaged Learning Index; ANOVA: analyses of variance; SD: standard deviation;156 MP: meaningful processing; FA: focused attention; AP: active participation157158 Statements and Declarations159 We confirm that the manuscript has been
major selected by the institution. Hence these smalladvantages are accumulating to something that is really important: their choice of major and theireventual career path.Bibliography 1. N. V. Mendoza Diaz, S. Y. Yoon, D. A. Trytten and R. Meier, "Development and Validation of the Engineering Computational Thinking Diagnostic for Undergraduate Students," in IEEE Access, vol. 11, pp. 133099-133114, 2023, doi: 10.1109/ACCESS.2023.3335931. 2. Noemi V. Mendoza Diaz, Trinidad Sotomayor, Effective teaching in computational thinking: A bias-free alternative to the exclusive use of students’ evaluations of teaching (SETs), Heliyon. Volume 9, Issue 8, 2023, e18997, ISSN 2405-8440, doi.org/10.1016/j.heliyon.2023.e18997
to better preparestudents for their future engineering careers, partly because of conflicting beliefs about thepurposes and methods of education [9]. For those who believe that current methods are mostlysuccessful, technical preparation takes precedence over contextualizing engineering knowledgein societal contexts. Learning to work within larger social issues occurs on the job and later inone’s career. Such prioritization of disciplinary knowledge in the curriculum is, however, oftenbased on a zero-sum calculus that assumes the time spent on societal context is time taken awayfrom core engineering knowledge. There is evidence this perspective is not fully correct [10].Other perspectives emphasize the need for more professional or
hand, entrepreneurship education is defined byTorrance and Rauch as “the teaching of skills and cultivation of talents that students need to startbusinesses, identify opportunities, manage risk, and innovate in the course of their careers” [9].Therefore, it is prudent to incline students toward adopting entrepreneurship as a tool forinnovation and value creation, enabling them to discover, evaluate, and exploit businessopportunities essential to economic growth [10].Thus, this study is designed to challenge students to employ their intellectual gifts and combinethese two rival concepts (sustainability and entrepreneurship), connecting them with STEM andart. Bioengineering improves the environment and increases the human quality of life
2011, respectively, with Doctoral Minors in Bioengineering and Public Health. Prof. Sochol’s postdoctoral training spanned the Harvard-MIT Division of Health Sciences and Technology, Harvard Medical School, Brigham and Women’s Hospital, the University of California, Berkeley, and the University of Tokyo. Prof. Sochol received the U.S. National Science Foundation “CAREER” Award in 2020 and the “Early Career Award” from the Institute of Physics Journal of Micromechanics and Microengineering in 2021, and was honored as an inaugural “Rising Star” by the journal, Advanced Materials Technologies, in 2023.Dr. Mohammad Fazelpour, University of Maryland Dr. Mohammad Fazelpour is a lecturer in Mechanical Engineering at the
attitudes toward science, including their interest in the subjectof science and their intention to pursue a science career [9]. The experience benefited from thedirect participation of subject domain experts: a neuroscientist specializing in music, and anaccomplished musician and ethnomusicologist, who provided direct instruction and physicalmaterials, and spent time installing specialized software and hardware in the school’s computers.For music and STEM integration to make a large impact in the educational system, however, itmust be able to reach students, which it can only do if it is meaningful for teachers.To facilitate a large-scale expansion of the music and STEM integration activities, and sponsoredby NSF’s grant “Increasing Students
at bestand too often absent. As a result, teachers may not be ready to make connections between earlyeducation in numeracy, computation thinking, and data analytics as they relate to data fluency andto the knowledge, skills, and dispositions they must develop later. This paper documents a grant-funded, extended professional learning community in which teachers developed these skills,conducted research projects around their interests, and used their findings to develop relatedlessons and prepare a paper for submission to a conference or publication and presentation at aconference or workshop.Developing data fluency continues to be scaffolded throughout a student’s career where, once theytransition into science, applied math, or other relevant
Paper ID #41495Decoding Determinants: An Intersectional Exploration of Students’ Decision-Makingfor Graduate Engineering EducationDr. Najme Kishani, University of Toronto Najme Kishani (najme.kishanifarahani@utoronto.ca) is a research associate at the University of Toronto to advance gender analysis and equity in engineering. Najme did her PhD at the Ontario Institute for Studies in Education (OISE) at the University of Toronto. Her research interests involve the role of education in enhancing young people’sagency to transform social conflicts and build peace and democracy. In her careers in international development at
resource for realtime student evaluation.Future WorkThe authors plan on implementing the In Class Datastorm challenges across all sections of ourprogram’s sophomore Data Structures class initially, and then all our freshmen classeseventually.We also plan on hosting our first day long Datastorm event in the near future. Our institution hassuccessfully held a similar event called Cyberstorm [7] at least annually over the last 14 years.Cyberstorm has shown great success in increasing the visibility of both our institution’s CyberEngineering program as well as the Cybersecurity field of our Computer Science program. It hasalso served to increase student and community engagement in the field, and encourage students topursue careers in these areas. We
subject in the student’s academic career. More technically, the hours of study dedicated to a field so that good learning can be achieved for the student. (Student, RS3)Taking into account these preliminary findings, the free-listing activity proved instrumental incapturing faculty and student perspectives on subject workload. By prompting participants to listelements associated with student workload, it provided an unstructured platform for expressingdiverse thoughts regardless of their academic role [12]. Not only did students and teachersdemonstrate a certain consensus regarding time allocation, but several of them alluded to thecurricular elements that influenced students’ perception of workload, such as the number ofsubjects and
their academic journey [6], [37], [38]. The roots of students' challenges incollege-level mathematics may be traced back to their high school experiences [39], [40]. Giventhat mathematical skills are often used to assess job applicants across various careers [41], mathreadiness becomes a critical determinant for college admissions [42] and subsequent degreeattainment [43], [44]. While some studies have delved into disparities in math readiness, othershave explored variations based on racial and ethnic minorities [45].The perception of integration and emotional connection during the first year, often referred to asthe sense of community [46], has been shown to have a substantial influence on students'academic achievement [47]. This emphasizes
Paper ID #43091Tilt Sensor Design Project Raises Awareness of Rollover Accidents and theirPreventionDr. Dale H. Litwhiler, Pennsylvania State University Dale H. Litwhiler is an Associate Professor at Penn State, Berks Campus in Reading, PA. He received his B.S. from Penn State University, M.S. from Syracuse University, and Ph.D. from Lehigh University all in electrical engineering. Prior to beginning his academic career, he worked with IBM Federal Systems and Lockheed Martin Commercial Space Systems as a hardware and software design engineer. ©American Society for Engineering Education, 2024
students fromcontinuing to pursue ECE as a career track. Instructors try to strike a balanced presentation ofchallenging concepts, facts, and learning strategies, but it seems that students always feel thatthere are too many detailed, progressively complex theories with few “real” engineeringexamples to relate. The lack of proper comprehension and problem-solving tactics addsadditional frustration to students when they are asked to transform technical materials into formsthat demonstrate their understanding and to apply knowledge in a variety of problem settings.Thus, it is crucial to design a fun learning environment that promotes strategic, constructive, andbig-picture reading, thinking and problem solving.With the advancement in digital
significant difference between the capacity of studentengineers and engineering practitioners in “problem scoping” and “informationgathering” at the start of a design project, and argue that engineering students wouldbenefit from teaching methods designed to model that process for them.1 In the 1990sfirst-year design courses were widely introduced in engineering programs in an attempt tointroduce students to the nature of their chosen profession earlier in their college careers.2Dym et al identify a host of institutions (Harvey Mudd, Purdue, Northwestern, PennState, Colorado School of the Mines, University of Alabama, Columbia, Cooper Union,Drexel, NJIT, Ohio State, Polytechnic South Carolina, USC, Carnegie Mellon, Universityof Colorado at Boulder
technical information exchange. We hope that in the future these twocourses may excite more students to pursue advanced studies and careers in this area of growingimportance. Page 22.1062.6AcknowledgementsThe authors greatly acknowledge the financial support for the equipment of this work by thestarting fund from the College of Engineering, California State University, Long Beach. Theauthors also thank Professor Sergio Mendez for his proofreading and suggestions.References1. M. A. Burns, B. N. Johnson, S. N. Brahmasandra, K. Handique, J. R. Webster, M. Krishnan, T. S. Sammarco, P. M. Man, D. Jones, D. Heldsinger, C. H. Mastrangelo, D. T
engineering. • They enjoyed working in teams. • They wanted more materials in bridge set to make more creative designs.DiscussionsAs a result of our observations and students’ feedback, we believe that these design projectsserved well for our purposes. We achieved our goals of teaching them in consecutive courses, aswell as they individually provided some other aims of teaching a design project.Discussion on teaching similar design projects in consecutive coursesSome students do not decide on their career on engineering until their sophomore year or later.There is a definite need to motivate these students and show them the benefits of studyingengineering. We believe that these projects enabled them, as well as the more determinedstudents, to
; fax: (+1) 781.292.2505; e-mail: ozgur.eris@olin.edu. Page 22.1025.1 c American Society for Engineering Education, 2011 LOOKING AT ENGINEERING STUDENTS THROUGH A MOTIVATION/CONFIDENCE FRAMEWORKAbstractIn this paper we compare groups of engineering students along two dimensions, intrinsicpsychological motivation to study engineering and confidence in professional and interpersonalskills. We focus on these two measures because they have been shown to be directly related toseniors‟ future career plans and other aspects of the student experience1.Our sample included 103 students who
well prepare our engineering students for the challenges presented by advancedtechnologies in the 21st century, as educators in engineering higher education, we need to offerthe opportunities for our young engineering students to get experience in using modern Page 22.1074.2technology tools. Using Matlab/simulink to learn and design electric machinery drives inelectrical engineering will open doors and career opportunities for young engineers, and makesthem an asset in the future. Therefore, the author developed a series of Matlab/Simulinkprograms for modeling and simulation of electric machinery, which is used by the followingproject.In the
technology, and other related topics. Over her career at SDSU, Dr. Andrawis served in many leadership roles through task forces, committees, and programs. She also served as Chair of the Academic Senate for the 2007/2008 academic year and has served on its Executive Committee for four years. Page 22.1606.1 c American Society for Engineering Education, 2011 Using Active Learning in Teaching ElectromagneticsIntroduction“Learning is not a spectator sport. Students do not learn much just by sitting in classes listeningto teachers, memorizing pre-packaged assignments, and spitting out answers
advised by Carl Dietrich, a research faculty member who had undergraduate and graduateteaching and advising experience.Duyun discovered the CR program via an general informational email related to summerresearch sent from his university career services department. Garrett found out about the programthrough a math department website. MaryPat was not able to participate in the initialteleconference. She found out about the Cognitive Communications program through an emailsent to the undergraduate Electrical Engineering and Computer Science department at heruniversity. This email was a forward from the head of the program.4.2 Prior related experience of the participantsDuyun attended a biomedical engineering research program at Johns Hopkins in
build an increasing number of local students qualified and interested inpursuing careers in engineering.The Navy Metrology Engineering Center has been a proactive and engaged partner in the STEPProgram since its inception. STEP is funded privately by partner companies investing in theeducation of local youth to attempt to raise the numbers of high technology educated workers inthe local community. STEP‟s primary mission is to “Inspire students to pursue careers in math,science, engineering and technology” through an innovative, proactive approach that engagesstudents, teachers and the local K-12 educational system with high technology companies,universities/colleges, high tech government agencies and all of their collective resources toachieve
education. She was awarded a CAREER grant from NSF to study expert teaching practices in capstone design courses na- tionwide, and is co-PI on several NSF grants to explore gender in engineering, design education, and interdisciplinary collaboration in engineering design.Jacob Preston Moore, Virginia Tech Jacob Moore is a PhD candidate in the Engineering Education PhD program at Virginia Tech. His re- search interests include developing better digital textbooks for engineering and using Rapid Prototyping in education.Deirdre Annaliese Nicole Hunter, Virginia Tech Deirdre Hunter is a doctoral student in the Department of Engineering Education at Virginia Tech.She has a B.S. in Mechanical Engineering from Syracuse
AC 2011-2280: MOUNT TIMPANOGOS COMMUNITY SPECIES DATABASEDr. Reza Sanati-Mehrizy, Utah Valley University Reza Sanati-Mehrizy is a professor of Computer Science at Utah Valley University. His research interests include Data Structures, Databases, and Data Mining.Mr. Evan JacksonAli Sanati-Mehrizy, Pennsylvania State University Ali Sanati-Mehrizy is a medical student at the Milton S. Hershey Medical Center at Pennsylvania State University. His research interests include the application of mobile computing in the sciences. Upon completion of medical school, he hopes to pursue a career in Internal Medicine/Pediatrics with a further specialization in Hematology-Oncology.Paymon Sanati-Mehrizy, University of Pennsylvania
participate in activities designed to strengthen their academic ability, character, social skills,and awareness of career opportunities available to them upon high school graduation.Program proposals are solicited by the Kauffman Scholars management each year frominstitutions of higher education, museums and other organizations. These proposals must includea rough outline of the pedagogy and academic plan the students participating in the particularsummer institute will follow and other details such as transportation, housing and mealarrangements. A specific budget must be submitted along with the plan for funding of thesummer institute. Once a specific proposal is selected for funding, Kauffman managementworks with the hosting organization to adjust
that they will use throughout their engineering careers: • Novel application of chemical engineering principles • Concentration measurement • Calibration • Material balances • Use of spreadsheets for calculations and graphing • Comparison of experimental concentration data to predicted concentrationsBackground InformationConventional Drug Delivery Methods The most common methods of administration of a drug are by ingestion and injection2.In recent years, several other routes of adiminstration have been explored, including pulmonary-through the lung, transdermal- though the skin, transmucosal - through a mucous membrane, andtransepithelial- a combination of transdermal and transmucosalError! Bookmark not
student participated in a simulated jobinterview. For the job interview, each student gave a presentation to the class and discussed whyhe/she was the best candidate for the given job. The interviewees used their education,experience, personal characteristics to convince the audience that he/she was the best fit for thejob. Feedback was provided by the instructor and questions were asked by the students. Thesetwo job preparation skills will help student be more effective at job career fairs, forced them tohave updated resumes, and sharpen their oral communication skills.To provide students with more information on teamwork, a guest speaker, who had extensiveexperience in team development and team-working, was invited to the class to speak
forengineering educators across the nation. Several universities and institutions have been workingtowards this objective 1-8.An engineering major typically has a curriculum 9 with a heavy load of prerequisite coursesmaking it relatively difficult (when compared with other majors) to combine with another major.On top of this the learning structure of a typical academic institution makes it hard for non-engineering majors to gain a meaningful understanding of engineering and technology 10-12. Non-engineering majors are faced with numerous forces that pull them in different directions—towardsocialization, career, and technological literacy. They are not well equipped to lead the nation,through its diversified and challenging problems by making informed