submitted to the team of the social scientist and the architect. This paperwould detail the results of this phase-I project and the implantation model.Introduction: Over the last two decades, materials science and engineering, and manufacturing (MSEM)has evolved into an important, interdisciplinary subject area in the engineering curriculum [1]–[3]. As a result, introductory undergraduate level MSEM class (with or without lab component)has become part of traditional non-MSEM engineering programs such as mechanical andindustrial engineering. In some cases, this type of class is a required component of anundergraduate course curriculum. Covering the depth and breadth of an interdisciplinary andhands-on subject like MSEM in a single semester
Paper ID #27138Adding the Extra 5 Percent: Undergraduate TA’s Creating Value in the Class-roomMrs. Alicia Baumann, Arizona State University Ali Baumann received her master’s degree in Electrical Engineering from the University of Wyoming before working as senior systems engineer at General Dynamics C4 Systems. She is now part of the freshman engineering education team in the Ira A. Fulton Schools of Engineering at Arizona State Uni- versity. Currently, she focuses on enhancing the curriculum for the freshman engineering program to incorporate industry standards into hands-on design projects. She is an instructor for the
ofcontext, scope and multiple intelligences in construction engineering education.IntroductionEngineering achievements accomplished throughout history are examples of individuals strivingto solve problems that are often considered untenable at the time. These problems mayencompass the achievement of great heights in structures, or the ability to span great divides withnew bridge technology, or the ability to enhance transportation modes with multimodaltransportation. In each scenario, it is the engineer with the vision to integrate conflictingdemands into an elegant solution that is pivotal to the final outcome. The continued importanceof this ability to integrate multiple demands is the basis for the position in this paper thatengineering
fully context-driven model presentedalongside a case study for empathy education in a BME design curriculum. This framework is particularlyuseful when developing and evaluating a program curriculum. The pillars of this model encouragepedagogy that not only equips students with empathic design skills, but also facilitates valuesdevelopment. The pillars can be traced throughout a curriculum to ensure empathy education iscontinuously integrated. Therefore, each model can be used to the advantage of engineering educators in avariety of ways and course context should be considered for the selection of a given model.Pedagogical StrategiesIn this section, instructional activities for empathy education that have been implemented in BME coursesare
, American Society of Engineering Education”of documentation. The plan was intended to function like a classical feedback controlsystem, and there are multiple feedback loops to be documented.In the process of designing and refining the biological engineering program at theUniversity of Arkansas, the faculty developed several methods to summarize anddocument the integrated program and the CQI plan we envisioned. The system thenfacilitated implementation of changes suggested by various constituencies. Theusefulness of these tools provided motivation to further develop an integrated electronicdocumentation package that would meet self-study requirements of ABET. Our goal wasto collect all materials needed for the ABET Self-Study Report in electronic
(PPI) Dr. Farid Breidi joined the School of Engineering Technology at Purdue University as an Assistant Profes- sor in Aug 2020. Farid received his B.E. in Mechanical Engineering degree from the American University of Beirut in 2010, his M.S. in Mechanical Engineering from the University of Wisconsin-Madison in 2012, and his Ph.D. in Agricultural and Biological Engineering from Purdue University in 2016. The primary focus of Farid’s research is modeling and design of fluid power and mechanical systems. He is interested in integrating machine learning and data analytics to improve the efficiency and performance of conventional and digital fluid power systems.Peter Soudah ©American
Universitydeveloped a new strategy for improving student retention and overall student quality based on anew first-year engineering experience. The older curriculum had become outdated, was notteaching our students what we thought they needed, and was not preparing the students for therest of the mechanical engineering program and beyond.As our graduating students completed exit surveys, common criticisms of the program included aperceived lack of software availability and a deep knowledge of how to use the software, lack ofpreparation for constructing prototypes (mechanical and/or electrical), and lack of product designinstruction and practice. In an effort to address these problems, two new courses were developedfor 1st year students [1] and a 2nd year
longer just a simple combination of the four disciplines, butemphasis more on the process of interdisciplinary learning [11]. The goal of STEM isto provide students with an integrated, interdisciplinary learning environment to betteracquire and apply the knowledge and skills required in the 21st century [12].STEM teachers are often regarded as the important factors of improving STEMeducation, as the STEM teachers teach students knowledge and skills and meanwhilecontinuously improving STEM curriculum and teaching methods, to cultivate STEMtalents but also promote the development of STEM education [1], [13]. But variousresearch also has indicated that it is not enough for STEM teachers to only have theknowledge of their own disciplines to
-tertiary education. Learning in the future has to be an integrated part of the job! People of all ages have to renew their knowledge in decreasing cycles. This is what we understand as "Life Long Learning".New Questions of Today’s and Future Engineering Education Page 21.30.4All these realities require a concerted effort to evolve engineering education into what today’sreality is demanding of practicing engineers. In other words, many traditional educationalmodels and practices are no longer functional. For this reason, the importance of pedagogy isgrowing at an enormous pace. The need to innovate and apply new paradigms to the teaching
rote learning because students can rapidly useknowledge to solve an issue at hand while internalizing the minimal amount of essential andrelevant information. Because they do not have to repeat the same material in several areas,integrated content also frees up students' time to study new information. This improves thinkingspeed and turns the brain into a programming machine rather than making learning dull. Apartfrom obtaining engagement for learners’ interdisciplinary integration has some advantages forinstructors as well. Teachers are familiar with interdisciplinary information in their subject areas,making it simple to synthesize and condense knowledge into primary ideas that are distinct fromone another and are easy to visualize
Paper ID #40724Student Recruitment and Retention Improvements through Success in FirstYear Mathematics: A Multi-faceted ApproachDeirdre Donovan Dr., Wentworth Institute of Technology Deirdre Donovan is the Director of First Year Mathematics at Wentworth Institute of Technology. Prior to joining Wentworth, she was program chair for mathematics, data analytics, and cybersecurity. Chairing three unique data-rich disciplines under one umbrella enabled an interdisciplinary approach to meeting student needs and curricular development. Scholarship has focused on mathematical problem solving, first year programs, student success
taken by students concurrently.Bibliography Page 12.1248.71. Jandhyala, V.; Kuga, Y.; Allstot, D.; Shi, C.J.R.., “Bridging circuits and electromagnetics in a curriculum aimed at microelectronic analog and microwave simulation and design,” Proceedings of the 2005 IEEE International Conference on Microelectronic Systems Education, 2005. (MSE '05), pp. 45 – 46, 12-14 June 2005.2. Munoz, M.; Garrod, S., “In process development of an advanced undergraduate communications laboratory,” Proceedings of the 27th Annual Frontiers in Education Conference, 1997, vol.2, pp. 751 – 755, 5-8 Nov 1997,3. Lumori, M. L
is an ASEE Fellow.Ms. Elizabeth A Parry, North Carolina State University Elizabeth (Liz) Parry Elizabeth Parry is an engineer and consultant in K-12 Integrated STEM through Engineering Curriculum, Coaching and Professional Development and a Coordinator and Instructor of Introduction to Engineering at the College of Engineering at North Carolina State University. For the past sixteen years, she has worked extensively with students from kindergarten to graduate school, parents, preservice and in- service teachers to both educate and excite them about engineering. As the Co-PI and project director of a National Science Foundation GK-12 grant, Parry developed a highly effective tiered mentoring model for graduate
-basedcourse where students worked in interdisciplinary teams on FEW related research projects. TheNRT Seminar consisted of training sessions related to team collaboration, career pathways, cam-pus resources, professional development, science communication, and exposure to FEW researchinitiatives.This paper details the graduate-level NRT activities with focus on educational activities includ-ing activities description, summative evaluation, and insights gained from four NRT student co-horts. Evaluation findings show the NRT is an inclusive, supportive, applied curriculum that ena-bled 40 graduate students to train as interdisciplinary researchers. This paper provides insights tocurrent and future NRT programs, as well as other new interdisciplinary
semester which affords students an opportunity to win cash prizes to help fund theirinnovative ideas as well as scholarships to continue pursuing the D&I minor. Lastly, the M3model includes a pathway to innovation approach with a new structure to offering dualcredit coursework to urban public high schools. This novel approach has been designed toenhance access to the program starting in high school. The new dual-credit approach, whichis called the facilitator model, allows high school teachers to be trained in facilitating theinnovation-focus curriculum in their schools day-to-day but with the university faculty beingthe instructor of record to evaluate the student progress. This strategy helps to navigatepolicies that inherently limit student
development, and applications of statistical signal processing.Dr. Michael R. Gustafson II, Duke University Dr. Michael R. Gustafson II is an Associate Professor of the Practice of Electrical and Computer Engi- neering at Duke University. He received a B.S.E. in 1993 from Duke University, majoring in Electrical Engineering and Mechanical Engineering and Materials Science. He continued on at Duke to earn his M.S. and Ph.D. in Mechanical Engineering and Materials Science. His primary focus is on undergraduate curriculum and laboratory development, and he is responsible for the first-year Computational Methods in Engineering course required for all engineering students at Duke University.Dr. Joseph C. Nadeau P.E., Duke
ABET EC 2000 recommend the developmentof technical and non-technical professional abilities as part of an undergraduateengineering education (ABET, 2001).MIT alumni and senior survey data reflect the changing needs of the professionalworkplace. MIT’s constituents supported the need for development of non-technicalprofessional abilities of undergraduate engineering students. In a 2000 survey ofengineering alumni who had graduated in 1994, alumni called for increased emphasis on“workforce skills.” In addition, 1998 and 2000 Senior Exit Surveys revealed studentdesire for greater internship opportunities and interaction with engineering practitioners.Designing a comprehensive, integrated curriculum that addressed the technical and non-technical
rigorousassessment process has been used since 2003 to drive curricular changes and to asses theeffectiveness of the program objectives [18-19].GES 115 curriculum has also been incorporated into a larger campus initiative aimed atimprovement in both student learning and retention beyond the 1st year. Each fall, 2 of the GES115 sections has been linked to 2 English 101 sections. Although links between these courseshas not yet been achieved at the curricular level, it has been viewed by students as a positiveexperience. Attendance is almost perfect in both courses throughout the semester (in itself ananomaly) and student teams from GES 115 (which is required) remain seated together in English101 (which is not required). In addition, GES 115 is an integral
integral component of the first-year engineering course, with participation inthese sessions contributing to the students' final course grades.Expanding the Peer Mentoring Program to include transfer students necessitates greaterflexibility compared to students following the traditional FEP curriculum. Given that the transferclass operates as an asynchronous remote course, adjustments were made to the Transfer PeerMentoring Program to accommodate both remote and in-person meetings. Existing mentorsvolunteered to also serve the transfer student population and were matched with mentees basedon declared major and meeting preference (i.e., in-person vs. virtual). Instead of providingpredetermined topics, mentors adopted a more personalized approach
meaningful research that serves the wider research community.Specifically, our approach involves having students work on research projects that focuses on thedevelopment of pre-college curriculum or STEM outreach activities that are relevant to theresearch mentors’ work. Within this structure students gain valuable research and developmentskills, but at a level that is appropriate for their age level while reducing the projects costs andensuring safety of students. This is of value to many federally funded researchers, as they are oftenlooking for ways to add a broader impact component to their research projects. In a way thisapproach “kills two birds with one stone:” provides students an authentic research project andproduces pre-college activities
on Accessible, Hands-on AI and Robotics Education, 2004.[2] R. Manseur, "Development of an undergraduate robotics course," in Proceedings Frontiers in Education 1997 27th Annual Conference, 1997.[3] B. A. Maxwell and L. A. Meeden, "Integrating robotics research with undergraduate education," IEEE Intelligent systems and their applications , vol. 15, no. 6, pp. 22-27, 2000.[4] I. R. Nourbakhsh, K. Crowley, A. Bhave, E. Hamner, T. Hsiu, A. Perez-Bergquist, S. Richards and K. Wilkinson, "The robotic autonomy mobile robotics course: Robot design, curriculum design and educational assessment," Autonomous Robots, vol. 18, no. 1, pp. 103-127, 2005. 2022 ASEE Annual Conference & Exposition
exactlyrepresent the operation of the machines because of incorrect or incomplete modelingassumptions.Moreover an undergraduate electric drives course that integrates up-to-date computer hardwareand software tools meets the expectations of today’s students (and employers) who want to usecomputer and simulation tools in every aspect of a course and thus the improved laboratorymethods will attract more students1.BackgroundThe addition of computer-based collaboration to the Electric Drives laboratory course is anenhancement and continuation of work done at the University of Minnesota to improve its entirepower curriculum. This work has spanned over a decade with support from the National ScienceFoundation (NSF) and the Office of Naval Research (ONR)2 and has
transport science.Prof. Tamara J. Moore, University of Minnesota, Twin Cities Tamara J. Moore is the Co-director of the University of Minnesota’s STEM Education Center and an Assistant Professor of mathematics and engineering education in the Department of Curriculum and In- struction. Her research is centered on the integration of STEM concepts in K-12 and higher education mathematics and engineering classrooms. Her research agenda focuses on models and modeling as a curricular approach and working with educators to shift their expectations and instructional practice to facilitate effective STEM integration
Education 2of engineering courses in our curriculum. These visits are planned by individual course instructorsfor the students in their specific class. This approach allows the instructor to tailor the content andobjectives of each visit so that it is most relevant to the course instructional material. To date, ourdepartment has integrated industry visits for all academic years except the junior level classes,although this is an important academic level to include, since students are subject to at least sixdiscipline-specific courses at this level. An industry site visit for a freshman level course serves tofamiliarize the students with the industries and processes where chemical engineers are
OutlineInstruction has four components: 1) a review of past transport principles (momentum, heat, andmass), 2) a demonstration of the power and effort necessary to solve problems numerically, 3)hands-on activities to learn how to use a commercial finite element package to solve biomedicaltransport problems, and 4) an overall understanding regarding the practical considerations in areal medical device company. These four distinct areas are not siloed, instead continually woventogether.There were four course learning goals. Students were told that by the end of this course theyshould be able to: 1. Understand and apply the steps required to attack a biomedical problem: formulation, software implementation, and accuracy checking. 2. Read the
can result in a lack ofreinforcement in learning and poor development of communication skills. Given the challengeshighlighted above, there exists a clear need for more curricular based, college-level STEAM-integrated coursework and interventions to expose engineering students to cross-disciplinaryproblems, further inculcating innovation and creativity development within the collegeexperience.1.3 Proposed SolutionHere, in this exploratory work, we examine the effect of an entrepreneurially mindset-focused,bioinspired STEAM-based intervention in a core curriculum, mid-level bioengineering course onphysiology. By targeting students in a mid-level course, we offer an opportunity for students toapply STEAM-based experiential learning in a
, Honolulu, HI.24. Cunningham, C. M., Knight, M. T., Carlsen, W. S., & Kelly, G. (2007). Integrating engineering in middle and high school classrooms. International Journal of Engineering Education, 23(1), 3-8.25. Salinger, G. L. (2003, January). Engineering in the K-12 curriculum. Paper presented at the American- Australian Technology Education Forum, Gold Coast, Australia, Technical Foundation of America.26. Splitt, F. G. (2003). The challenge to change: On realizing the new paradigm for engineering education. Journal of Engineering Education, 92(2), 181-187.27. Douglas, J., E. Iversen, and C. Kalyandurg. (2004). Engineering in the k-12 classroom: An analysis of current practices and guidelines for the future. Washington, DC
disciplines. Prior to the 2000-2001 academic year,both the ME and ECE departments had an independent senior design sequence. In the summer of2001, these were merged by the ME and ECE departments, and this has continued to the present.The senior design curriculum change was motivated by a need to place additional emphasis ondeveloping student skills in product design and effective multidisciplinary teamwork. Muchcurriculum development at our university and others has focused on these skills since theintroduction of Engineering Criteria 2000 by the Accreditation Board for Engineering andTechnology. Additionally, multidisciplinary design and teamwork have been active areas incurriculum development at other universities.Each team of four to six students
and virtual international project experiences.” Jour. of Int. Engineering Education, vol. 3, no. 1, article 5, 2021.[6] Reddy, E. A., Kleine, M. S., Parsons, M., Nieusma, D. (2023, June) Sociotechnical Integration: What is it? Why do we need it? How do we do it? In 2023 ASEE Conference & Exposition.[7] M. D. Patton, "Beyond WI: Building an Integrated Communication Curriculum in One Department of Civil Engineering," IEEE Transactions on Professional Communication, vol. 51, no. 3, pp. 313-327, 2008[8] J. L. Craig, N. Lerner, and M. Poe, "Innovation Across the Curriculum: Three Case Studies in Teaching Science and Engineering Communication," Professional Communication, IEEE Transactions on
: Learning Assessment, Applied Statistics, ABET outcomes, Industrial EngineeringIntroductionIt is broadly recognized that the applied statistics course is one of the most important quantitativesubjects in the industrial engineering curriculum (Brown and Kass, 2009). Over the last decade,there has been raising attention given to the teaching and learning aspects of statistics course(Garfield and Ben-Zvi, 2008; Dinov and Christu, 2009; Bilgin, 2011; Harpe et al., 2012; Judi andSahari, 2013; GAISE Report, 2016)One of the essential components in the learning and teaching environment is an effectiveassessment that can promote learning as well as measure or certify outcomes (Garfield andFranklin, 2011; Clements and Cord 2013, Crisp et al. 2016