underserved communities and improve K-20 STEM education ini- tiatives. Address: Department of Teaching and Learning, Virginia Commonwealth University, 1015 West Main Street, Richmond, VA-23284 Phone: 804-827-2667 Email:lmwaller@vcu.edu Page 26.625.1 c American Society for Engineering Education, 2015 Work In Progress - Everyday Engineering Discovery Program: Motivating Middle School Children Interest in STEMAbstractMiddle school (6th -8th grade) has been shown to be a crucial juncture for maintaining studentmotivation, interest and awareness in science, technology, engineering
’ Engineering Awareness Survey (PEAS) According to the Knowledge, Attitude, and Behavior Framework. Proceedings, 2010 ASEE Annual Conference, American Society for Engineering Education. Washington, DC.2. Knight, D.B., Mappen, E.F., & Knight, S.L. A review of the literature on increasing the representation of women undergraduates in STEM disciplines through civic engagement pedagogies. Science Education and Civic Engagement, 3(1), 36-47. 2011.3. Halpern, D.F., Aronson, J., Reimer, N., Simpkins, S., Star, J.R., & Wentzel, K. Encouraging Girls in Math and Science. Report for Institute of Education Sciences Practice Guide, U.S. Department of Education. 2007.4. Carlone, H.B., & Johnson, A. Understanding the
underrepresented in STEM fields, including girls, minorities, students from low socio-economic backgrounds, students with individualized education plans, and English-language learners. (p. 117) With these considerations in mind, we present our research as one component of a largermission that seeks to provide a framework for K-12 students to engage the engineering designprocess through their self-determined interests. While organizations such as the NationalResearch Council and National Academy of Engineering communicate concerns for the increaseof women and minority participation in engineering, students also need the liberty to expresstheir individual diversity within engineering8. Regardless of shared ethnicity, socio-economicstatus
engineering education.IntroductionConcept inventories are assessment tools designed to evaluate students' understanding offundamental concepts in a specific subject area. They are widely used in educational settings,particularly in STEM fields, to identify misconceptions and measure conceptual understanding.This paper examines the use of an existing concept inventory (CI) to assess students’ grasp of thecore concepts in a Mass and Energy Balances (M&EB) course within a traditional ChemicalEngineering (ChE) undergraduate program at a large R1 university. The use of the CI in thisstudy was exploratory, with no efforts to identify or address misconceptions through instructionimplemented at the time of writing.Mass & Energy Balances, or Material
intensive, hands-on, motivationalexperience where each student would build, program, and develop the interface between theprogramming board and the robot hardware. We hoped that along the way the students wouldlearn about different engineering fields, computer science, and also the basics of computerprogramming and interfacing. The course concluded with a robot competition. Studentscompeted to see which robot could go through an unknown maze without bumping into mazewalls in the shortest time. The course objectives included: 1) Take the mystery out ofengineering and computing, 2) Show that engineering and computer science is fun and exciting,3) Demonstrate that engineering is for both women and men, 4) Emphasize hands-on, learn bydoing exercises
, Sept. 19, 1882.20. T. A. Edison, “Filament for Incandescent Electric Lamps,” U.S. Patent 1,163,329, Dec. 7, 1915.21. M. Josephson, Edison: a biorgraphy. New York, NY, McGraw-Hill, 1959, ch. 10, pp 175-204.22. N. Tesla, “My Inventions: 1. My Early Life,” Electrical Experimenter, pp. 669-697 and 743-747, Feb. 191923. D. G. Reinertsen, The Principles of Product Development Flow: Second Generation Lean Product Development. Celeritas Publishing, Redondo Beach, CA, 2009.24. K. Beck, et al. (2016, Feb 1). Manifesto for Agile Software Development [Online]. Available: http://www.agilemanifesto.org/25. M. Kennaley, SDLC 3.0: Beyond a Tacit Understanding of Agile, Towards the Next Generation of Software Engineering. Fourth
social capital. Contemporary Sociology, 29(6), 785-795.13. Stolle-McAllister, K. (2011). The case for summer bridge: Building social and cultural capital for talented black STEM students. Science Educator, 20(2), 12-22.14. Swartz, D. (1997). Culture and power: The sociology of Pierre Bourdieu. Chicago, IL: University of Chicago Press.15. McKenna, G., & Lewis, V. (1986). Ten steps for retaining under-represented students. Journal of College Student Personnel, 27, 452-453.16. California Community Colleges Chancellor's Office (2013). California Community Colleges Chancellor's Office - Data Mart. Retrieved December 2013 from http://datamart.cccco.edu/17. Enriquez, A. (2011). Strengthening the STEM Pipeline through an Intensive Math
library. These units,created by engineering graduate students and reviewed by engineering faculty, are user-friendlymaterials for K-12 teachers, designed to impact K-12 student’ science and mathematicsknowledge and their awareness of engineering as a possible career 20. The designers have shownsignificantly higher learning gains in experimental groups using the ITL Program materialscompared with control classrooms. The vision statement of the ITL Program, adapted from theNational Academy of Engineering and National Research Council, is ―To create a K-12 learningcommunity in which students, K-12 teachers and the College of Engineering and Applied Scienceexplore, through hands-on doing, the role of engineering and innovation in everyday life. And
Engineering Education at Purdue University. Her research focuses what factors influence diverse students to choose engineering and stay in engineering through their careers and how different experiences within the practice and culture of engineering foster or hinder belongingness and identity development. Dr. Godwin graduated from Clemson University with a B.S. in Chemical Engineering and Ph.D. in Engineering and Science Education. Her research earned her a National Science Foundation CAREER Award focused on characterizing latent diversity, which includes diverse attitudes, mindsets, and approaches to learning, to understand engineering students’ identity devel- opment. She is the recipient of a 2014 American Society for
completing high school physics and thecareers they choose to pursue. The data is interpreted through a review of the history of feministinfluences on education in British Columbia and on Canadian society.KeywordsEngineering Education; Gender; Stereotypes; Feminist Influences; STEMIntroductionYoung women occupy an increasing percentage of the seats in high school physics classroomsyet they do not, for the most part, enter post-secondary programs in engineering or physics 3,4. Inthis paper, I explore the possible ongoing societal reasons for this phenomenon by reviewing,decade-by-decade, the history of feminist influences on education in British Columbia and onCanadian society. Furthermore, I present data trends from the British Columbia school
fraction of the nontraditional populationentering as transfers varies by institution from 26% to 94%. Institutions with a higher fraction ofnontraditional students tend to enroll a lower fraction of nontraditional students through thetransfer pathway—some institutions seem to have policies or recruiting procedures that reach outto nontraditional students beyond the transfer pathway. Table 2: Institutions with more nontraditional students rely less on the transfer pathway. Transfer fraction of Nontraditional fraction nontraditional engineering Institution of engineering students students A 8% 94
Paper ID #21782Engagement in Practice: Engaging Undergraduate Students in a Multidisci-plinary Service-Learning EnvironmentDr. Wei Lu, Texas A&M University Dr. Wei Lu is a Postdoctoral Researcher at the Department of Engineering Technology & Industrial Distribution at Texas A&M University. Her research focuses on Higher Education in Agriculture & Engineering, K-12 (STEM) Education, Communications, Marketing, and Social Economics. Master of Science, Agricultural Economics, Texas A&M University Doctor of Philosophy, Agricultural Leadership, Education& Communications, Texas A&M UniversityDr
global issues such as those pertaining to sustainability.Dr. Melani Plett, Seattle Pacific University Prof. Melani Plett is a Professor in Electrical Engineering at Seattle Pacific University. She has over sev- enteen years of experience in teaching a variety of engineering undergraduate students (freshman through senior) and has participated in several engineering education research projects, with a focus how faculty can best facilitate student learning.Prof. Rebecca A Bates, Minnesota State University, Mankato Rebecca A. Bates received the Ph.D. degree in electrical engineering from the University of Washington in 2004. She also received the M.T.S. degree from Harvard Divinity School in 1993. She is currently a
' participation in research programs improves their students' achievement in science," Science, vol. 326, pp. 440-2, 2009.[5] S. H. Russell and M. P. Hancock, "Evaluation of the Research Experiences for Teachers (RET) Program: 2001-2006," SRI International2007.[6] K. Barker, At the Bench: A Laboratory Navigator. Cold Spring Harbor: Cold Spring Harbor Laboratory Press, 2005.[7] B. A. Brown, "Discursive identity: Assimilation into the culture of science and its implications for minority students," Journal of Research in Science Teaching, 2004.[8] L. M. Phillips and S. Norris, "Bridging the Gap Between the Language of Science and the Language of School Science Through the Use of Adapted Primary Literature," Research
skills and higher-order thinking, and an improvement in student achievement (Newberry & Hughes23, 2006).Claim 2: The course objectives integrate mathematics and science content with technology and engineering instruction through rigorous and relevant instructional tasks. PLTW’s curriculum makes mathematics and science relevant for students. The curricular objectives integrate math and science content as defined by NCTM20 (2000), NRC21 (1996), and AAAS1 (1993) and with standards for technological literacy as defined by the ITEA11 (2000) and enduring engineering concepts as identified by ABET, Inc. Criterion 3-Outcomes A-K (ABET2, 2007) By
local population while allowing the students rich opportunities to learn from the communityand to reflect on that learning.III. Student Projects at the WPI Bangkok Project CenterWPI has been conducting IQPs in Thailand since 1989. These projects have been sponsored bylocal nonprofit organizations, government agencies, and universities, as well as by internationalorganizations, and the vast majority of them fall into the category of service learning. WPI choseThailand as its first base of operations in Southeast Asia based on a strong and loyal cadre oflocal WPI alumni, and it has been through these alumni that most project opportunities have beenidentified. Two local alumni serve as Local Coordinators and take the lead in identifyingpotential
25.975.3mathematics is learned and how teachers can influence student’s learning may be prerequisites to making changes ininstructional methods. Additionally, school administrators and parents need to understand the benefits to their ownstudents (Mueller, Yankelewitz, & Maher, 2010) for them to help remove actual or perceived obstacles impedingteachers alternative mathematics learning approaches. CONCLUSIONSThe results show that there are new teacher education models for promoting durable mathematical thinking withinthe K-12 environment. Students need to build a strong foundational understanding of mathematics throughout theK-12 grades in order to continue successful later study of mathematics required for
Americans: A Revisionist Analysis of the ‘Model Minority’ Thesis,” Amerasia Journal, vol. 4, no. 2, pp. 23–51, Jan. 1977.[10] J. Y. Wing, “Beyond Black and White: The Model Minority Myth and the Invisibility of Asian American Students,” Urban Rev, vol. 39, no. 4, pp. 455–487, Nov. 2007.[11] C. Kang, H. Jo, S. W. Han, and L. Weis, “Complexifying Asian American student pathways to STEM majors: Differences by ethnic subgroups and college selectivity,” Journal of Diversity in Higher Education, p. No Pagination Specified-No Pagination Specified, 2021.[12] J. Chan, “Complexities of Racial Identity Development for Asian Pacific Islander Desi American (APIDA) College Students,” New Directions for Student Services, vol. 2017, no. 160, pp
semester. Physics Jam is modeled after Math Jam (a week-long intensive mathpreparation program on our campus), which showed improvement in student success andcreating a sense of community among program participants. The focus of Physics Jam is tounify the student’s math skills with introductory physics problems prior to the semester, therebyimproving their success in their upcoming course. Physics Jam students were given a pre-assessment and then allowed to proceed self-paced through prearranged video content andpractice problems with constant access to tutor support and an instructor. Page 24.1013.2This paper will discuss the successes and
into the pipeline to engineering and technology-based careers, nor is the country doing a good job keeping existing students in the pipeline.Less well known, ironically, is another important National Academy of Sciences documenttitled, "Beyond Bias and Barriers: Fulfilling the Potential of Women in Academic Science andEngineering"2. This report says in its Executive Summary, Women scientists and engineers face barriers to success in every field of science and engineering, a record that deprives the country of an important source of talent. Without a transformation of academic institutions to tackle such barriers, the future vitality of the U.S research base and economy is in jeopardy." [In particular, while
EvaluationAbstract:This paper demonstrates the success of the Summer of Innovation program over a four yearperiod and answers the question “Does summer STEM engagement increase student interest andteacher instruction among underrepresented and underserved youth?”Summer and after-school programs present a prime venue for fostering student interest inScience, Technology, Engineering, and Mathematics (STEM) because of their informalatmosphere and their unique ability to inspire and excite children through enrichmentexperiences and hands-on, project-based group activities. Out-of-school time (OST) activitiesallow students to connect with STEM on a personal level, which is especially important forstudents who are underrepresented in these fields and may not have
Electrical Engineering concentration. His research work focuses on the use of wireless sensor networks, microcontrollers, and physiological data collection for a variety of applications. His primary interest is in the area of adaptive tutorial systems, but he has ongoing projects in the area of hospital patient health monitoring. He is actively engaged in K-12 outreach through several venues.Dr. Chris Venters, East Carolina University Chris Venters is an Assistant Professor in the Department of Engineering at East Carolina University in Greenville, North Carolina, USA. He teaches introductory courses in engineering design and mechanics and upper-level courses in fluid mechanics. He earned his Ph.D. in Engineering
AC 2009-2335: ELICITING UNDERSERVED MIDDLE-SCHOOL YOUTHS’NOTIONS OF ENGINEERS: DRAW AN ENGINEERTirupalavanam Ganesh, Arizona State University Tirupalavanam Ganesh, Ph.D., has degrees and experience in engineering, computer science, and education. He has brought this experience to bear in previous research that examined the use of technologies in K-12 settings with diverse students. He has worked with the Children’s Museum of Houston on the development and implementation of Robotics-based STEM programming for urban youth. He is the Principal Investigator of the National Science Foundation Award# 0737616, Learning through Engineering Design and Practice.John Thieken, Arizona State University
- isha also tutored students in the computer engineering curriculum and mentored students along the way. While possessing a burning passion to help others in STEM related fields, she now serves as the Student Diversity Coordinator in the Bagley College of Engineering at Mississippi State University.Dr. Mahnas Jean Mohammadi-Aragh, Mississippi State University Jean Mohammadi-Aragh is the Director of Diversity Programs and Student Development for the Bagley College of Engineering and Associate Professor in the Department of Electrical and Computer Engineer- ing at Mississippi State University. Through her interdependent roles in research, teaching, and service, Jean is actively breaking down academic and social barriers to
guide / pacing suggestions) The SparkFun Inventor’s Kit (SIK) is a great way to get started with programming and hardware interaction with the Arduino programming language. The SIK includes everything you need to complete 16 circuits that will teach you how to read sensors, display information on an LCD, drive motors, and more. You don’t need any previous programming or electronics experience to use this kit. This kit and the accompanying materials are used widely in schools from middle school to high school and beyond. The fullcolor SIK Guidebook (included with the kit) contains step by step instructions of how to connect each circuit with the included parts. Full example code is provided and explained and even includes troubleshooting
resources and the courses they need to take to succeedduring their first semester and beyond. They also help them choose the courses they need in theirfirst year to complete their degree requirements. Through the program, first-year students getintroduced to campus social events and work with peer advisors (residential advisor (RA andcommunity advisor (CA) to learn about one another and build a strong community life in theirdorms and on campus. Black students did not attend the first-year experience program because 1)they might not know the value of the program, 2) some of them have already attended a pre-orientation program that prepares underrepresented students in STEM to navigate college butthat does not offer academic advising or 3) they do
education as K-12 engineering standardsbecome more prevalent1-3 and as benefits of design experiences for science learning gainrecognition.4, 5 Collaborative problem solving around engineering design projects are especiallyimportant because they represent the ways professional engineers often work.6, 7 Drawing on ourdiverse backgrounds as a highly effective middle-school science teacher, an assistant professor ina teacher preparation program, and a pre-service teacher candidate, we explored the creativecollaboration of eighth-graders engaged in engineering design activity. In particular, we wereinterested in learners’ perceptions of their group’s communication patterns, and their perceptionsof their own participation in their group. Our interest
avariety of software applications and engineering topics. Maryland began offering the PLTWcurriculum in 2002. By 2009, the state had 80 high schools and 34 middle schools teachingPLTW, reaching 100 to 250 students per school, and in 2014 the pre-engineering curriculum wasbeing taught in 106 high schools and 81 middle schools.2 K-12 teachers express a need andappreciation for the technology integrated into the PLTW curriculum that keeps their studentsinvested and interested in engineering using real-world applications.As reported by the American Association of Community Colleges, teachers look to communitycolleges for access to advanced technology and effective strategies.3 For the past seven and ahalf years, The Community College of Baltimore
that over the past 25 years, there has been a markedincrease in the inclusion of sustainability and green engineering principles in chemicalengineering curricula, although challenges remain in fully integrating these concepts into corecourses [7].Addressing social responsibility through curriculum redesign complements sustainability effortsby broadening student awareness of societal impacts. Saienko emphasizes that engineeringeducation must transcend technical knowledge to include social and economic considerations,thereby fostering a generation of engineers equipped to engage with socially responsible design[8]. One way chemical engineering curriculums address social responsibility is through processsafety courses which address risk
mindset can be used to further engi- neering education innovations. He also does research on the development of reuse strategies for waste materials.Dr. Daniel Knight, University of Colorado, Boulder Daniel W. Knight is the Program Assessment and Research Associate at Design Center (DC) Colorado in CU’s Department of Mechanical Engineering at the College of Engineering and Applied Science. He holds a B.A. in psychology from Louisiana State University, an M.S. degree in industrial/organizational psychology and a Ph.D. degree in education, both from the University of Tennessee. Dr. Knight’s research interests are in the areas of K-12, program evaluation and teamwork practices in engineering education. His current