Pedersen, Texas Tech University Rachelle Pedersen is an Assistant Professor at Texas Tech University in the Department of Curriculum & Instruction (Emphasis in Engineering Education). She has a Ph.D. in Curriculum & Instruction from Texas A&M University and a B.S. in Engineering Science (Technology Education) from Colorado State University. Her research focuses on motivation and social influences (e.g. mentoring and identity development) that support underrepresented students in STEM fields. ©American Society for Engineering Education, 2025Proceedings for the 8th Annual Collaborative Network for Engineering and Computing Diversity(CoNECD) Conference Agriculture & Nutrition for
to and read about how these engineering projects are making adifference in their communities: • Project BUILD (Building Using an Interactive Learning Design) [7] • Community-Engaged Engineering Interventions with Appalachian Youth [8] • Connections in the Making: Elementary Students, Teachers, and STEM Professionals Integrating Science and Engineering to Design Community Solutions [9] • Zipping Towards STEM: Integrating Engineering Design into the Middle School Physical Science Curriculum [10] • Collaborative Research: American Innovations in an Age of Discovery: Teaching Science and Engineering through 3D-printed Historical Reconstructions [11]In addition to the profiles of ITEST projects like
STEMeducation with industry for innovation. The objective is to prepare learners for STEM careers and to connectindustry through academia. In higher education, the critical learning skills are necessary to STEM educationand degree completion. There are retention efforts provided for the curricular support program that scholarshave contribute to motivation and outcomes of STEM interdisciplinary degree completion. Our efforts tosupport pre-college STEM education includes an understanding of college readiness and the learningenvironment using project-based learning (PBL). Hands-on experiences are general found to be successfulwhen integrated using PBL methods with industry. According to recent study, both intrapersonal andinterpersonal skills in PBL has
. Starting in 2000, Alan began to focus on supporting higher education partners in projects that address broadening participation in the sciences, graduate student development, curriculum innovation, instructional technology, teacher professional development and other education reforms. For the past five years, Alan has been the lead evaluator for Epicenter, an NSF-funded STEP Center focused on infusing entrepreneurship and innovation into undergraduate engineering education.Mr. Emanuel Costache, SageFox Consulting Group Since joining SageFox in 2009, Emanuel has worked on the evaluation team for a variety of NIH- and NSF-funded projects, including the National Center for Engineering Pathways to Innovation (Epicenter
in a simulated environment.In part of a more comprehensive study, this paper will integrate authentic assessments andengineering simulations to enhance the transfer of learning in engineering education. One ofour research questions is “How can teaching be redesigned to support students in applyingknowledge and skills in real-world problems?”Literature BackgroundTo understand how knowledge and skills can be applied from foundational modules to projectswith a real-world context, the transfer of learning must be scrutinized. As such, any changes toeducation or teaching must incorporate an understanding of the transfer of learning to bettersupport students. The study of transfer aims to determine to what extent training, or aneducational
Paper ID #43687Board 387: S-STEM: Iron Range Engineering Academic Scholarships forCo-Op Based Engineering EducationDr. Catherine McGough Spence, Minnesota State University, Mankato Catherine Spence is an Assistant Professor at Iron Range Engineering through Minnesota State University, Mankato. She received her PhD in Engineering and Science Education in 2019 and a BS in Electrical Engineering in 2014 at Clemson University.Dr. Emilie A Siverling, Minnesota State University, Mankato Emilie A. Siverling is an Assistant Professor of Integrated Engineering and the Iron Range Engineering Program through Minnesota State University
Phoenixmetropolitan area has served nearly 3,700 students. Further, implementation of EPICS targetsunderserved communities, including Title I and Hispanic majority schools. Because EPICS isconstrued as a service-oriented learning experience, the program inherently encourages a diversegroup of student participants. In other words, EPICS is not billed as an engineering course, butrather as a service-learning opportunity [15], [16]; this diversifies the students who are interestedin engaging with the program. Finally, EPICS features an adaptable curriculum that can bemolded to fit any of the following options: i) in-school model EPICS is a required course: anexample is where the school uses the EPICS course as a senior capstone experience; ii) in-schoolmodel
South Dakota School of Mines and Technology where her research interests include novel manufacturing and characterization techniques of polymer and com- posite structures and the incorporation of multifunctionality by inducing desired responses to mechanical loading.Dr. Shaobo Huang, South Dakota School of Mines and Technology Dr. Shaobo Huang is an Assistant Professor and the Stensaas Endowed STEM Chair in the Department of Mechanical Engineering at South Dakota School of Mines & Technology. Her research interests in- clude student retention and academic performance in engineering, student achievement evaluation and assessment, and K-12 STEM curriculum design.Dr. Marius D Ellingsen, South Dakota School of Mines
of how cultural norms affect engineering design and the adoption of engineeringinnovations. Specifically, participants will: Increase their self-knowledge of interculturalcompetence, and explore and adopt strategies for developing their own interculturaleffectiveness; Explore and evaluate engineering innovations within a framework of communitywellbeing and sustainable development; Integrate cultural knowledge, ideas and concepts intoSTEM curriculum and pedagogy. Therefore this paper will focus on the research question:“Does participation in the NSF RET Global STEM program positively impact participants'intercultural competence?"In an effort to address this research question, a convergent parallel mixed method evaluationdesign (Creswell &
Paper ID #25154Engineering Major Certainty: A Look at Major Discernment Initiatives Preand PostDr. Kerry Meyers, University of Notre Dame Dr. Kerry Meyers holds a Ph.D. in Engineering Education (B.S. & M.S. Mechanical Engineering) and is specifically focused on programs that influence student’s experience, affect retention rates, and the factors that determine the overall long term success of students entering an engineering program. She is the Assistant Dean for Student Development in the College of Engineering at the University of Notre Dame. She is committed to the betterment of the undergraduate curriculum and
graph and positiongraph. In a conventional curriculum those relations refer to the positive (negative) sign, andincreasing (decreasing) behavior of derivative function, corresponding to the increasing(decreasing) and concave upward (downward) behavior of the function. Software brings thescenario for learning those facts analyzing the real context of linear motion. As part of the study,an assessment instrument was designed in order to appreciate the students’ appropriation of thoserelations. The instrument’ items are classified by corresponding to the linear motion context, orcorresponding to different real contexts (no motion), or without including any real context. Theyalso consider the posing information of the item and of the answer, being
. She completed her post-doctoral work at Columbia University between 2005-2008. She joined University of Missouri-Columbia, Chemical Engineering as an assistant professor in 2008 and has moved to Stevens in 2010. She is the recipient of the 2010 NSF-CAREER award and has received several grants from NSF-DMR, -CMMI and ACS PRF. She currently serves as the coordinator of the Nanotechnology Graduate Program and the PI of the REU/RET Site program (2021-2023) at Stevens. ©American Society for Engineering Education, 2023 A New Mentoring and Undergraduate Research Experience Model between REUs and RETs at the Stevens REU/RET Site Program on Sustainable Energy and BioengineeringAbstractThe Stevens REU/RET
integrated in this regard and the STEM acronym was elevated to STEAM [14]. However,STEAM did not gain as much steam as STEM yet, and it is not as popular either.Qualifications Required for the Position of Instructor for Engineering Courses:A scan of more than one hundred online announcements for engineering faculty positions atvarious institutes of higher education in the US and a few parts of the world was executed. Itrevealed expected similarities as well as differences in listing the qualifications needed tobecome an instructor for engineering courses. Showing full details on this scan here is ratherlong and tedious, and therefore it is not necessary especially many of the details are repetitive.In lieu of that, a relatively shorter tabulated
from Establishing a Multidisciplinary Biomedical Engineering Program at CSULBAbstractBiomedical Engineering (BME) integrates engineering, natural sciences and medicine to addresshealthcare challenges. To meet growing demand and advance inclusive excellence in STEM,California State University, Long Beach (CSULB) established an independent BS BME programand pursued ABET accreditation to ensure quality and industry alignment.This paper shares CSULB’s experience with its first-time ABET accreditation for its BMEprogram, outlining steps taken, lessons learned, and key recommendations for other institutions.It details how the program met accreditation criteria, implemented assessment processes, andaligned the curriculum with
and liberal educationalgoals within the context of engineering education.This paper provides an overview of contemporary work in digital humanities involving makingactivities and the potential of this work to inform engineering education making activities in away that bridges technical and humanistic concerns. It highlights how making practicesthemselves can be understood as a form of inquiry, with modalities drawing on—but distinctfrom—traditional engineering and humanities epistemologies. The paper draws on a largerresearch-and-teaching initiative at Rensselaer titled, “Making as Critical Inquiry,” which iscurrently being integrated into our interdisciplinary undergraduate Programs in Design andInnovation (PDI). PDI has a well-established
, components that the majority of engineeringdepartments are adopting include rapid prototyping tools, such as additive manufacturingmachines (3D printers) and laser cutters [3], [4].Makerspaces and Engineering Education. Makerspaces have become popular withinengineering education. Integrating a makerspace into an engineering curriculum can be adaunting task given the scope and sequence of university engineering coursework. Recentresearch found that over a three-month period, students who took part in a course that integrateda class project within the makerspace were positively and significantly impacted in the domainsof technology self-efficacy, innovation orientation, affect towards design, design self-efficacy,and belonging to the makerspace [5
Belonging and Peer LeadershipAbstractThis Complete Research paper describes efforts to support students entering an undergraduateelectrical and computer engineering (ECE) program from diversified matriculation pathwaysthrough a peer mentoring program embedded in the first-year curriculum. The myriad entrypoints to this specific engineering program (changes in major, transfers, career changes, stop-outs, etc.) punctuate that first-year-in-engineering may not be synonymous with first-time-in-college. As enrollment patterns continue to change across higher education, it is imperative thatengineering programs are prepared to support students and the variety experiences and needsthey bring to the classroom. In this work, we
theknowledge of STEM in Elementary and Middle School students.KeywordsSTEM, Elementary, Middle, methods, technologiesIntroductionAt the elementary school level, STEM education provides an introduction to the STEM as wellas an awareness of STEM (California Department of Education, 2014). For middle schoolstudents, STEM allows students to begin the exploration of STEM-related careers. Finally, forthe high school, STEM prepares students for successful post-secondary education and beyond1.Among the four areas of the STEM, the research in technology and engineering education inelementary and middle schools is less mature because those subjects are not as commonly taughtin K-12 education. The nature and potential value of integrated K-12 STEM education are
populations. Her current research focuses on creating inclusive and equitable learning environments through the development and implementation of strategies geared towards increasing student sense of belonging.Dr. Sura Alqudah, Western Washington University Dr. Sura Al-Qudah is an assistant professor in the Engineering and Design Department at Western Wash- ington University. She received her Ph.D. and M.S. in Industrial and Systems Engineering from State University of New York at Binghamton in August 2014 andDr. Joseph Arthur Brobst, Old Dominion University Joe Brobst holds a BS in Biological Sciences, MA in Curriculum and Instruction, and Ed.D. in Edu- cational Leadership, all from the University of Delaware. Formerly a
European Conference on (pp. 353-358). IET.5. Ioannides, M. G. (2004). Design and implementation of PLC-based monitoring control system for induction motor. IEEE transactions on energy conversion, 19(3), 469-476.6. Armstrong, R. W. (1998). Load to motor inertia mismatch: unveiling the truth. In Drives and Controls Conference.7. Akram, Hossian. (2011)-352: Integrating Servomotor Concepts into Mechatronics Engineering Technology Curriculum Emphasizing High Speed Packaging Machinery8. Merzouki, R., Davila, J. A., Fridman, L., & Cadiou, J. C. (2007). Backlash phenomenon observation and identification in electromechanical system. Control Engineering Practice, 15(4), 447-4579. Li, Huaizhong., Le, M. D., Gong, Z. M., & Lin, W. (2009
laboratories in their Mechatronic courses.1. IntroductionThe reshoring of manufacturing in the United States requires a retraining of a workforce toutilize advanced manufacturing tools and techniques and automation [1]. Automation requirestraining in mechatronics, which integrates mechanical and electrical systems to developautomated systems that are controlled with programming. Mechatronics is the foundation ofautomated systems and has become not only a need to shorten the current manufacturing skillsgap [2], but also serves as a platform to provide STEM education. Mechatronics is an important area of study for several STEM related fields, butspecifically for the applied ones such as Engineering Technology (ET). ET as a discipline hasexisted
results from the combination of grasping and transforming experience” (Kolb 1984, p. 41). Kolb’s experiential learning theory describes how students absorb and use information and is commonly shown in a four stage cycle ‐ concrete experience, observation of and reflection on that experience, formation of abstract concepts based upon the reflection, and testing the new concepts.1 A number of studies have shown the benefits of experiential learning and various models of integrating the concepts in the college curriculum. 2 A common way of providing experiential learning to college students are internship and co‐op experiences. In Liberal Education and America’s Promise [LEAP] report, developed by the American Association of Colleges and
, Texas State University, San Marcos Dr. Shaunna Smith is an Assistant Professor of Educational Technology in the Department of Curriculum and Instruction at Texas State University. She holds an Ed.D. in Curriculum & Instruction with an em- phasis on technology integration and art education. Her teaching and research explore how the hands-on use of design-based technologies (e.g. digital fabrication, 3D modeling and printing, computer program- ming, and DIY robotics) can impact multidisciplinary learning that transcends traditional content contexts (e.g. arts-based STEM integration). At her free mobile makerspace for K-12 students and teachers, The MAKE Lab (http://themakelab.wp.txstate.edu), she is currently
solutions to modern problems.While traditional engineering programs provide students with the technical skills required oftheir profession, students often lack the knowledge and resources on how to incorporate complexenvironmental and social factors into decision-making so that they are prepared to face society’sevolving challenges. As part of a larger initiative to integrate traditional technical skills withenhanced social awareness into the engineering curriculum, a two-part module emphasizing theenvironmental and social design considerations of sustainability was added to an existing moduleseries in a third-year Materials Science course. This paper will describe the design,implementation, and assessment of one part of this module entitled “The
resource planning, use, and management. A related goal is to operationalize such cross cutting objectives as gender equality, network development, fundraising, outreach, and policy impact. The USPCAS‐W Program is being implemented through five components: (1) Governance, (2) Curriculum Reform, (3) Applied Research, (4) Training, and (5) Sustainability. More details of USPCAS‐W are available at http://water.utah.edu/uspcasw and http://water.muet.edu.pk/. The USPCAS‐W Curriculum component is anchored by the creation of four new graduate degree programs in areas of great need in Pakistan: (1) Hydraulics, Irrigation, and Drainage; (2) Integrated Water Resources Management; (3) Water, Sanitation, and Hygiene (WASH) Sciences; and (4) Environmental
learnt thus giving them a potential advantage inthe job market over other entry level competitors without that experience.While maintaining technical execution, students often require the acquisition of complementary technicalexpertise not covered in the official curriculum [18]. This combination of skills remains an area of studywithin engineering education that is still in need of further development and refinement for differentmajors [19]. Engineering collaboration within team settings must “move beyond the divide and conquer”approach (commonly observed) and instead operate in a dynamic and integrative mode that resembles theactual building industry [20]. Multi-disciplinary teams provide an excellent way to promote integrationthat allows for
investigate future STEM careers. Several of these programs have successfully motivatedstudents into engineering careers leading to higher enrollments and retention of collegeengineering graduates. Project Lead the Way (PLTW), a pre-engineering program, has becomeone the well-known national programs providing students possibilities in the engineering andscience fields. 4,5 Project Lead the Way (PLTW) is an engineering curriculum that teaches students in K-12engineering fundamentals including developing problem-solving abilities, critical thinking andkey professional skills starting in kindergarten and continuing through high school.4 Through thehigh school engineering pathway, students are introduced in their first core classes to
installation. One of the goals of the experience is for students tounderstand project management and interdisciplinary collaboration in a hands-on way, and tounderstand that stakeholder engagement is an integral part of the process. The goals,methodology, organizational structure, logistics, lessons learned, and the instructors’observations of the experience are also described in the paper.Overview of Relevant Literature: STEM Study Abroad and Capstone ExperiencesWhile employers increasingly seek “culturally aware” and globally engaged employees,engineering and STEM (Science, Technology, Engineering and Math) students who aspire tostudy abroad often struggle to find room in a curriculum that tends to be highly regimented andheavy on required courses
to maintain and institutionalize its benefits; to do so, itis often necessary to seek further funding to continue work towards the full integration ofprogram components and ensure that they are sufficiently embedded in the university culture.This case study will outline how the most successful components of an NSF-fundedinterdisciplinary computing program at San Francisco State University (SFSU) - the PromotingINclusivity in Computing (PINC) program - have been expanded and strengthened throughfurther grant-funded efforts to create widespread improvements in Computer Science (CS)education at the university and discuss lessons learned from this process over the last five years.Though our experience may be unique to our university in some ways
Paper ID #26387Resources and Partnerships for Community College Engineering and Tech-nology ProgramsProf. Karen Wosczyna-Birch, CT College of Technology/Regional Center for Next Generation Manufacturing Dr. Karen Wosczyna-Birch is the Executive Director and Principal Investigator of the Regional Center for Next Generation Manufacturing, an National Science Foundation Center of Excellence. She is the State Director for the College of Technology, a seamless pathway in technology and engineering from all 12 public community colleges to 8 public and private universities. Dr. Wosczyna-Birch has expertise with both the recruitment