N.S.F. GK-12 grant ”Graduate Teaching Fellows in STEM High School Education: An Environmental Science Learning Community at the Land-Lake Ecosystem Interface”. His main responsibilities are supervising and implementing improvements to the undergraduate labs. He also serves as secondary instructor for the CHE labs, the Departmental Safety Coordinator, and lead for the SAFEChE (Process Safety Across the CHE Curriculum) modules as well as the Visual Encyclopedia of Chemical Engineering Equipment. Currently, he serves as a Program Chair for the ASEE ChE Division.Jamie Clark, University of WashingtonDr. Alexis N Prybutok, University of Washington Alex Prybutok (she/her) is an Assistant Teaching Professor in the Department of
through the lens of writing studies,” in 2018 ASEE Annual Conference & Exposition Proceedings. ASEE Conferences, 2018, p. 30467. [Online]. Available: http://peer.asee.org/30467[15] C. McCollum, A. Pfluger, and M. Butkus, “Technical communications in an environmental engineering curriculum: A framework for analysis and continual improvement,” in 2020 ASEE Virtual Annual Conference Content Access Proceedings. ASEE Conferences, 2020, p. 35287. [Online]. Available: http://peer.asee.org/35287[16] J. D. Ford, “Integrating communication into engineering curricula: An interdisciplinary approach to facilitating transfer at new mexico institute of mining and technology,” Composition Forum, vol. 26, 2012, ERIC Number
beyond. Four essential learning areas for ENI-SE emerged: Mastery by Doing,Real-world Connectivity, Interdisciplinary Exposure, and Supportive Learning Environment.We discuss how these areas were realized in ME310 and provide examples from otherengineering courses. Furthermore, we hypothesize how features of these four areas might beadapted or adopted more broadly in the engineering curriculum. These findings not onlyhighlight the overlap between entrepreneurship and innovation in engineering education butalso offer a blueprint for integrating these key pedagogical practices into existing curriculardesigns, equipping students to become creators, drivers, and forerunners of novel ideas andchange.Keywords: Embracing New Ideas, Self-Efficacy
the White House Presidential Innovation Fellows, where she focuses on inclusion and diversity in technology (2012). c American Society for Engineering Education, 2016 Gaining Insights Into The Effects Of Culturally Responsive Curriculum On Historically Underrepresented Students’ Desire For Computer ScienceIntroductionOne of most pressing question for my generation to answer is that of equalizing participation inour economic life, and particularly in the new technical economy. In the field of computer science(CS), there is a near absence of women and underrepresented ethnic minorities (AfricanAmericans, Hispanics, Native Americans, Pacific Islanders and persons with
Engineering Design Process Knowledge: Comparison between Teachers New to Engineering and More Experienced TeachersAbstractInterest in introducing engineering concepts to elementary school aged children has continued toincrease in recent years for a variety of factors, some of which include concerns of lackingSTEM literacy and global competitiveness. Recent studies have provided evidence that learningthrough engineering design can promote deep approaches to learning. As more states are addingengineering content, including design, as part of their K-12 learning standards, there is a need tounderstand teachers’ knowledge and concerns of incorporating engineering into classrooms. Inthis study, we ask the question: what aspects of an engineering
version-control and allowing all instructors to continuously have access to themost recent version of the course page with a quick and simple interface for editing canfacilitate course development, negotiation, and decision-making. Professor Michalek iscurrently co-teaching a new Decision Tools for Engineering Design and EntrepreneurshipCourse at Carnegie Mellon that was co-developed with Professor Erica Fuchs. The courseis a merger of two older courses taught separately by the instructors, and it involvedsubstantial redesign. Using the wiki to edit one another's work in course development,continuously move lectures, homework assignments, and other items on the schedule, andcome to agreements on course policies was invaluable. The wiki enabled
Session 2353 Introduction to Engineering Problem Solving - A New Course for 1100 First Year Engineering Students Richard L. Porter, Laura J. Bottomley, Mary Clare Robbins, Walthea V. Yarbrough, Sarah A. Rajala, and Hugh Fuller North Carolina State UniversityI. IntroductionDuring the past several years, NC State University has offered several experimental coursesdesigned for the first year student in engineering; IMPEC, an integrated approach tomathematics, physics, engineering, and chemistry 1,2; E123, a mechanical dissection coursewhich is now linked with the
in engineering applications of nanomaterials andmacromolecules. This paper describes how the development of a Master’s program resulted in aminor for engineering undergraduates that is relevant to industrial technology.The CPS graduate program developed because the late Dr. Howard Gerhart, then vice presidentfor R&D at PPG Industries and later adjunct professor of chemical engineering at CarnegieMellon University, took the lead in approaching Carnegie Mellon with specifics of hiscompany’s needs in basic training and continuing education for technical employees. Hisrequirements fit well with existing planning by the polymer research group of the chemistrydepartment to launch a graduate curriculum in polymers and by the chemical
AC 2012-4862: SUMMER MERIT CAMP AND ENVIRONMENTAL COM-MUNICATION WEEK: TARGETED APPROACHES TO ENVIRONMEN-TAL ENGINEERING EDUCATIONDr. Sudarshan T. Kurwadkar, Tarleton State University Sudarshan Kurwadkar is an Assistant Professor and a board-certified Environmental Engineer. He teaches environmental engineering and general engineering courses at the freshman, junior, and senior level. His research areas include fate and transport of micro-pollutants such as pharmaceuticals and neonicotinoid insecticides in soil and aquatic environment. He is a Co-faculty Advisor for the engineering club and French club at Tarleton State University. Kurwadkar is also a licensed Professional Engineer in the states of Texas, Ohio, and
sources, due to theinherently interdisciplinary nature of robotics field coverage and laboratory hands-oninstrumentation requirements. Thus, a concise and collaborative robotics curriculum, tracking anational design competition and offering a mentoring opportunity, can provide significantcontributions for a viable solution, with many pedagogical benefits.Interdisciplinary nature of robotics offers enormous educational opportunities for students. Arobotics engineer needs to have a general scientific background and multidisciplinary technicalskills in, at least, mechanical and electrical engineering, computer science, physics, and controlsystems for anticipated open-ended real world problems. Robotics students can benefit fromeffective learning
, which requires a more flexible approach to allow students to better engage with thefield of engineering and to allow curricula to adapt to the ever-changing landscape ofengineering practice and technology. The significant curricular change involves taking thecurrent 6 credit hours of first year engineering courses and breaking them into a set of 1 credit(or less) modules from which students can select. This paper discusses in detail the first year ofthe project which has involved implementing changes to the current courses to prepare for thechange to the modular format along with getting buy-in from the administration and facultywithin the college. The paper also discusses outcomes from the changes implemented during thefirst year of the
new technical skills outside of their engineering curriculum. And lastly, by providing aninterdisciplinary environment that contributes towards positively towards their soft andentrepreneurship skills.Reference1 Seaward, G. (2001, June), Converting Single Disciplinary Capstone Projects ToInterdisciplinary Experiences Paper presented at 2001 Annual Conference, Albuquerque, NewMexico.2 J. Wilbarger and S. Howe, "Current Practices in Engineering Capstone Education: FurtherResults from a 2005 Nationwide Survey," Proceedings. Frontiers in Education. 36th AnnualConference, San Diego, CA, 2006, pp. 5-10.3 Jones, B. D., Epler, C. M., Mokri, P., Bryant, L. H., & Paretti, M. C. (2013). The Effects of aCollaborative Problem-based Learning
. Page 14.1073.1© American Society for Engineering Education, 2009 STEM Recruitment, Retention, and Graduation: Progress to DateAbstractStrategies employed to recruit, retain, and educate students in science, mathematics, andengineering include a variety of approaches, such as hands-on activities, field trips,summer workshops, competitions, tutoring, research experiences, and software trainingprograms. This paper describes a new program, STEM Recruitment, Retention, andGraduation (STEM-RRG), geared toward increasing the number of minority studentspursuing degrees in Science, Technology, Engineering, and Mathematics (STEM) fieldsat Texas A&M International University (TAMIU). STEM-RRG consists of severalprojects that implement a number of
literacy into the curriculum at Purdue University. Resource Sharing & Information Networks, 17(1/2), 43-56.11. Napp, J. B. (2004). Survey of library services at engineering news record's top 500 design firms: Implications for engineering education. Journal of Engineering Education, 93(3), 247-252.12. Nerz, H. F. & McCord, M. G. (2003). Information Literacy Rubric. Retrieved March 6, 2006 from http://www.lib.ncsu.edu/instructiontoolkit/document.php?doc=5313. Nerz, H. F., & Weiner, S. T. (2001). Information competencies: A strategic approach. 2001 ASEE Annual Conference and Exposition, Jun 24-27 2001, 5821-5831.14. Owusu-Ansah, E. K. (2004). Information literacy and higher education: Placing the academic library in the
AC 2011-2742: ARCHITECTURAL ENGINEERING CURRICULUM: IN-TEGRATION OF ARCHITECTURE AND ARCHITECTURAL ENGINEER-INGAhmed Cherif Megri, University of Wyoming Dr. Ahmed Cherif Megri, associate professor of architectural engineering at the University of Wyoming (UW), teaches several HVAC and energy courses. Dr. Megri is also teaching a course titled ”Compre- hensive Performance of Building Envelope and HVAC Systems” for Summer School at UW, and ”Smoke and Fire Dynamics” during summer session at Concordia University, Canada. His research areas include airflow modeling, zonal modeling, energy modeling, and artificial intelligence modeling using the support vector machine learning approach. Prior to his actual position at UW
Paper ID #47215Decolonizing engineering curriculum on stolen land: Settler amnesia withinengineering educationJessica N. Tran, University of British Columbia, Vancouver Jessica (Jess) Tran is a graduate student pursuing a master’s degree in engineering education at the University of British Columbia (UBC). They are interested in exploring EDI (equity, diversity, and inclusion), justice-oriented pedagogies and praxis, and anti-colonial approaches to and within engineering education spaces, particularly within K-12 STEM outreach.Jessica Wolf, University of British Columbia, Vancouver Jessica Wolf is a PhD student in the
analyses of mechanism configurations.Typically, students are more energized and motivated to learn and retain concepts when coursescontain computer laboratory experiences. A new course in mechanisms analysis was designedby the author and included within the curriculum of a newly created baccalaureate program inmechanical engineering technology at Miami University. The program was officially approvedin the spring of 2003 and course offerings were begun in the fall of the same year. Hence thedata confirming and/or refuting the above premise is limited.While many mechanisms courses currently being taught within the curriculums of mechanicalengineering technology programs make use of computer enhanced project assignments, theauthor believes that this
the teaching/ learning process, so when developinga new course it is crucial to adopt a curriculum model that will enable educators to systematicallyand transparently map out the rationale for the use of particular teaching, learning, andassessment approaches [12, 13]. Context and transfer are important elements of learning. Context can be very helpful forstudents to understand how to apply basic skills like math or technology applications to complexengineering problems. However, if students are only taught in one context, they may havetrouble transferring to other contexts [14]. The challenge for teaching technology across theCEM curriculum is to create knowledge and skill-building opportunities that allow students totransfer this
Paper ID #38443Bridging the Knowledge Gap Between Design Requirements and CAD - AJointEmbedding ApproachDr. Cheng Chen, University of Georgia Cheng holds a Ph.D. in mechanical engineering from the University of Georgia and has published nu- merous papers on topics such as computational design, geometric modeling, and engineering education. He is always seeking innovative approaches to fill knowledge gaps and to assist in solving complex de- sign issues. He is currently working on several projects to develop various natural language models for requirement management. Cheng is passionate about applying his domain expertise
the last decade, she has dedicated her education efforts towards developing new experiential learning curriculum, creating preparation programs to address opportunity gaps, and enhancing involvement of student organizations in engineering education. Her academic research interest includes include sensing, sensors, soft materials, wearable sensors, and remote health monitoring/devices, where she has spent the last seven years developing thin-film optical pressure sensors and infant feeding dysfunction diagnostic devices.Prof. Truong Nguyen, University of California, San Diego Truong Q. Nguyen received the B.S., M.S., and Ph.D. degrees in electrical engineering from the California Institute of Technology, Pasadena
are also performed in structuralcourses. Once students realize that structures vibrate, they are exposed to computer programsthat predict the frequency of vibration and present the theoretical basis for dynamic analysis ofstructures.Design of steel structures is based on the ultimate design approach known as LRFD (Load andResistance Factor Design) common in American engineering practice. This course uses themanual of the American Institute of Steel Construction as a textbook, and extensive examples arepresented to illustrate practical design applications2.There are three courses in concrete structures: Modern Concrete Technology presents theprinciples, practice and testing of high performance and lightweight concrete. Students
number of our undergraduates are interested in pursuingindustry careers in design and innovation and would benefit from open-ended context drivendesign experience in medicine that fosters observation skills, deep empathy, and needs-finding.These contextual skills have been found lacking among engineering graduates by nearly half ofrespondents in a survey of 1,622 employers [3]. A contextualized learning approach [4-5] inengineering education has been shown to improve student motivation, confidence, andconceptual understanding in a variety of studies [e.g. 6-7].To meet this “design gap” in our curriculum and to address the need for human-centeredcontextualized design experience for our students, we developed an upper-level elective courseentitled
Paper ID #11248Production and Characterization of Graphene and Other 2-dimensional Nano-materials: An AP High School Inquiry Lab (Curriculum Exchange)Mrs. Alison Lynn Fielding, Centennial High School, Boise, ID Mrs. Alison Fielding teaches Advanced Placement Chemistry and College Preparatory Chemistry at Centennial High School in Boise, ID. She earned her BS in Earth Science Education from Boise State University in 2013 with a minors in Chemistry. She is currently pursuing a Masters of Science degree in STEM from Boise State University. In an effort to explore new pedagogical approaches she worked with Boise State
in the fall of 1999.Jeff Kimble was hired as the first faculty member in July of 1999. Professor Kimble came to theprogram having been a firefighter for almost twenty years. The search committee felt incomingstudents would relate well to someone with a similar background. In addition, Professor Kimblealso had Bachelors degree in Fire Safety Engineering Technology, a Masters degree in IndustrialTraining, and had just completed the course work on an Education Doctorate in InstructionalDesign. All of these factors would be vital in getting a new program going. Twenty-eightstudents were enrolled in the first two classes in the fall of 1999.Curriculum Development:While a curriculum had been developed for the program proposal, the Engineering
Paper ID #27382Work in Progress: Alternative Developmental Math Curriculum Designed toAccelerate the Sequential Coursework by Implementing Quantitative Rea-soningMr. Michael Maloy Parker, Cankdeska Cikana Community College Mike Parker received a BS in Mechanical Engineering from North Dakota State University. He served in the US Army as a reliability engineer and vehicle test officer. He has been an agricultural producer in his home state of ND as well as being involved in local manufacturing and oil well hydraulic fracturing. He is currently an instructor at Cankdeska Cikana Community College in the Pre-engineering
Paper ID #25400A Unified and Collaborative Approach to Risk Classification for Fabricationand Library SpacesDr. Daniela Faas, Franklin W. Olin College of Engineering Dr. Faas is a Senior Lecturer in Mechanical Engineering and the Director of Design and Fabrication Operations at Olin College in Needham, MA. Prior to joining Olin College, Dr. Faas was the senior pre- ceptor in design instruction at the John A. Paulson School of Engineering and Applied Science at Harvard University. Dr. Faas was a Shapiro postdoctoral fellow in the Mechanical Engineering Department at MIT after receiving her Ph.D. in Mechanical Engineering and
to quantitative and predictive, academic and industrial engineers areincreasingly involved in addressing biological problems. Currently, large chemical companiesare expanding in the biological sciences by exploring the genetic engineering of crops, use ofbacterial catalysts, and “green” engineering. The engineering departments of universities arealso involved by recruiting students and new faculty with an emphasis in environmentalengineering and biotechnology.How can students be trained in biological topics without time consuming and controversialoverhauls of the curriculum? During lectures, the instructor has a unique opportunity to exposestudents to current developments in emerging areas of research. Students can be trained tosolve
learning and at the same timecreates understanding of energy efficiency and concern for the environment. Each studentpresents a full thermodynamic analysis of his vehicle engine including test results at theconclusion of the one semester course.This approach produces a challenging course that provides students with a solid background inthermodynamics supported in practice by knowledge of the characteristics of their own vehicleengine and heat exchanger. It should be noted that the student computations are performed in anExcel environment which provides fast computation and simulation of engine performance. Thecourse was judged successful, student interest was maintained throughout, and studentsatisfaction with the course was very high.The view
Bioengineering and Director of the Engineering Education Research Center at Washington State University. He has led numerous multidisciplinary research projects to enhance engi- neering education. He currently leads projects creating and testing assessments and curriculum materials for engineering design and professional skills, especially for use in capstone engineering design courses. He has been a Fellow of the American Society for Engineering Education since 2002.Paul B Golter, Washington State University Paul B. Golter obtained an MS from Washington State University and recently defended his PhD degree and is currently the Laboratory Supervisor in the Voiland School of School of Chemical Engineering and Bio-engineering
and practitioners.For example, in a sophomore level mechanics course at WKU, engineering students worked inteams to perform a preliminary physical field inspection and analysis of a historic steel trussbridge located in Bowling Green, Kentucky.The focus of the paper is to present the work performed by the students and how the project wasintegrated into the course curriculum where the concepts of engineering mechanics discussed inclass were related directly to the bridge. Students appreciated this approach to learning whichoffers a unique hands-on experience where students actively participate by working in the fieldon an existing structure.I. IntroductionIn recent years, there has been a growing trend in engineering education to include