Session 10-1 Cooperative Learning: An Integral Part of Mechanical Engineering Technology Curriculum James Mayrose, David J. Kukulka State University of New York College at Buffalo AbstractStudents are confronted with an enormous amount of engineering content during their course ofstudy. Due to the tremendous amount of pressure placed upon performance in the way of grades,students often look for ways to “cut corners” or do “just enough” to get a decent grade. Studentswill only learn to master engineering concepts
engineering school tours and serves on student panels for prospective students.Prof. Feng Xiong, University of Pittsburgh American c Society for Engineering Education, 2021 Integration of COMSOL Multiphysics into an Undergraduate Electrical Engineering CurriculumAbstractThere is a need for multiphysics simulation in undergraduate electrical engineering curricula,however, many programs do not include this at the undergraduate level. This paper discusses theintegration of multiphysics simulation into an undergraduate curriculum at the University ofPittsburgh for the purposes of educational enhancement and undergraduate research.In this paper, we will discuss an internal grant award
manufacturing scheduling, systems control and automation, distributed control of holonic systems and integrated manufacturing, agile manufacturing, virtual reality and remote laboratory applications in edu- cation. He has authored or co-authored various journal and conference publications in these areas. Mert Bal is currently the Chair and Associate Professor at the Miami University, Department of Engineering Technology, Ohio, United States of America.Dr. Farnaz Pakdel, Miami University American c Society for Engineering Education, 2021 Integrating 3D Printing into Engineering Technology Curriculum1. IntroductionThree-dimensional (3-D) printing has witnessed
and presents in several organizations (such as AERA, ASEE, ASTE, NSTA, and SITE.), and she is the current chair- elect for the ASEE PCEE Division. Before beginning her work in higher education, she taught secondary school science for 12 years in Florida and Virginia (USA). American c Society for Engineering Education, 2021CODING IS THE NEW COAL 1 Coding is the New Coal: A History of Integrating Computer Science Across Wyoming’s K-12 Curriculum Astrid K. Northrup, S. Renee Dechert, and Raymond Floyd Northwest
collaborative instruction among faculty in ComputerScience and Philosophy [1], [2]. Due to challenges with implementing ethics as a stand alonecourse, recent efforts have focused on integrating ethical reasoning in existing courses asstudents are learning technical concepts, to instill that ethical reasoning is needed while writingcode and developing technology, instead of being an isolated activity [1], [3].In developing a model for embedding ethics in the computer science curriculum at HarvardUniversity, Grosz et al. [1] addressed ethics via software design and verification in introductoryundergraduate programming courses. However, introductory engineering computing coursesmay not have these emphases and focus on using basic concepts to solve
by the engineer in the design.ConclusionLaser scanning technology has been used in various engineering fields. However, thistechnology is not widely used in education due to the high cost of the hardware and the hightechnical expertise required for data processing. The continuous evolution of this technologyover the years made it more affordable for use in the classroom. Laser scanning providesexcellent opportunities to enhance the construction engineering management curriculum. Thispaper presents an extensive literature review on laser scanning technology applications andevaluates the feasibility of integrating it in the construction engineering managementcurriculum. It was found that seven out of the 20 student learning outcomes required
the need for developing skills inCybersecurity. Though many Universities offer a master’s degree in Cybersecurity, it isimpractical to fill this huge demand for Cybersecurity through only graduate degree holders.After careful analysis, it has become evident that there is a gap in the curriculum as it relates totraining for Cybersecurity concepts in foundational computing courses for students. To be morespecific, there is relatively less focus on the infusion of Cybersecurity concepts in undergraduatecomputing courses and its impact on classroom practices. This paper serves to address this gapby providing an experience in infusing, teaching, and assessing Cybersecurity modules in variousundergraduate computing courses that immerse students in
Integrating Energy Modeling Software into Sustainable Energy Systems Curriculum A. Hoxie, Ph.D. University of Minnesota DuluthThe Passive House energy modeling software was integrated into a senior level technical elective onsustainable energy in the Mechanical and Industrial Energy program at the University of MinnesotaDuluth. Previous iterations of the course have focused primarily on energy production. Renewableenergy technologies were introduced from large-scale utilities to distributed small-scale systems.Students also learned the current methods of energy production as well as the sectors of energy usethroughout the
Curriculum DevelopmentAbstractThis paper describes the setup of an integrated project platform to support student research andcurriculum development in the burgeoning topics of artificial intelligence and machine learning.The platform comprises modules for object classification and collision avoidance which are usedin the design of intelligent and autonomous vehicles. Object classification consists of theappropriate neural network architecture for training and learning object characteristics from datasets. Collision avoidance utilizes a single camera to estimate the distance of the vehicle from theobject. The hardware and software requirements of the integrated project platform are met bycost-effective resources. In addition to serving as a testbed
origins to the 1994 ASEE report Engineering Education for aChanging World, which, among many other recommendations, asserted that “engineeringeducation must take into account the social, economic, and political contexts of engineeringpractice…” [2, pp. 20–21]. The report emphasized that contextual skills should be deliveredthrough multi- and interdisciplinary coursework, integrated into the existing curriculum, andfocused on an understanding of the ethical dimensions of engineering. A decade later, theNational Academies report Educating the Engineer of 2020 re-emphasized the importance of thethemes of interdisciplinarity, societal context, and ethics to the engineer of the then-future [3].In 2018, Dr. Ruth Graham, in her report on The Global
2011. Currently, she is working with a diverse multi-disciplinary research group of Graduates, Undergraduates, and High Schoolers as the Director of the Intelligent Systems Laboratory (ISL) at UT Tyler. As a Faculty at the University of Texas at Tyler, she has been involved in outreach activities in East Texas to broaden participation in STEM. American c Society for Engineering Education, 2021 Integrating Computational Thinking in an Interdisciplinary Programming Course for Engineering Undergraduates Prabha Sundaravadivel Assistant Professor
education at the Tecnologico de Monterrey. Her main research areas are faculty development, teaching methods, and gender issues in STEM education. American c Society for Engineering Education, 2021 Integrating Global Sustainability Challenges in an Organizational Management CourseAbstractPrevious studies indicate that there is a link between a country's engineering capacity and itseconomic development. Future professionals must be capable of integrating the social andenvironmental fields into their engineering solutions. Their vision of the world must answer anew development model that ensures resource availability and well-being for
Energy and Society was submittedby the authors and eventually selected for development into a course that was offered for the firsttime this past fall. Twenty seven freshmen from a wide diversity of disciplines voluntarily signed upfor the proposed course. The course meets one semester hour for four semesters. Students whoattend the entire course, four semesters, are able to substitute this course for one in their major(agreed upon by the respective curriculum committees prior to the course offering). The firstsemester is an introduction to energy concepts such as work, power and conservation of energy. Thesecond semester deals with energy production (conventional and alternative/renewable) and usage insociety. The third semester looks at the
engineeringcurriculum. To add to this gap in literature, this paper analyzes quantitative responses of genderand sexual minority students’ perceptions of the engineering curricula from the survey conductedin 2018.Relevant LiteratureThe predominant normative marker of science and scientists in the U.S. has historically andcontinues to be based on White cisgender male perspectives [1]–[7]. Not surprisingly, thishomogenous and heterogenous perspective leads to pedagogical practices in which minoritizedstudents underperform compared to when innovative pedagogical models are used, such asflipped classrooms [8], [9]. This long-standing conceptualization of science and scientists alsoresults in an engineering curriculum that deems “issues of communication, justice
strongertechnical communication skills. In the early 2000s, engineering professional societies reportedunderdeveloped writing and presentation skills in entry-level job candidates while, at the sametime, stressing the time spent in a typical engineer’s day on communication tasks [1, 2]. At thesame time, ABET adopted new criteria for evaluating and accrediting engineering programs [3].The criteria focused on developing “soft skills” including teamwork, ethics, and effectivecommunication, among others. The importance of soft skills has only grown in the interveningyears. Among ABET’s student outcomes as listed in 2019-2020 is “an ability to apply written,oral, and graphical communication in broadly-defined technical and non-technical environments;and an
of Waterloo. He has over a decade of experience in the field of solid mechanics, structural analysis and finite element modelling. Furthermore, he has had an integral role in a half decade long project developing the processing technique, and characterizing the structure-properties relationship in the forging of magnesium alloys for fatigue critical components. His research interests include, fatigue and fracture, cyclic plasticity modelling, and energy based damage models for a variety of different ma- terials. Furthermore, him and his group have been pioneers in the understanding of the process-structure- property-performance relationship for forging of HCP materials, in particular, Mg alloys. He has been
asked. CVEN Rome Program critiques were country-specific (e.g. transportation);however, the persistent responses about the language barrier indicate an area in which the CVENRome Program may find room for improvement.xii. Student ImpactOne academic concern raised often with a study abroad program is whether or not students learnthe content they need to succeed academically as they return from the experience. During a studyabroad program, there are several competing priorities with learning the culture, traveling, andtaking advantage of this unique experience. The CVEN Rome Program was designed to maintainthe same rigorous curriculum of courses taught in College Station, while providing someschedule flexibility to allow students to travel and
interests includepersonalized learning, learning analytics, cyberlearning environments, educational digital libraries, schol-arly communications, human-centered computing, and interdisciplinary research methods for studyingcognition. I have written 140 articles on these topics, including over 80 peer-reviewed scholarly publica-tions. American c Society for Engineering Education, 2021 Integrating Professional Mentorship with a 3D Printing Curriculum to Help Rural Youth Forge STEM Career ConnectionsIntroductionYouth residing in mountain tourist communities represent an important and underserved ruralpopulation. Science, engineering, and computing are hidden within the daily
journals. He is Fellow ASME, American Society of Mechanical Engineers, and current member of the Board of Associates of ASME, I.C. Engine Division. He is the recipient of ASME award for outstanding contributions to the literature of combustion. He has been a principle investigator on several grants funding in excess of $14M. American c Society for Engineering Education, 2021 1Development of Educational Convective Heat Transfer Experiment for Integration into the Undergraduate Curriculum Shahrokh Etemad, Justin Chi, Lorenzo Giordani, Nicholas
disconnected math and engineeringconcepts can lead to decreased student motivation, lower academic performance, and reducedretention within engineering courses and majors at the university level. Additionally, the dividebetween mathematics and engineering departments’ foundations and expectations for studentscan also cause frustration among faculty. As a solution, an integrated engineering mathcurriculum, often taught by the engineering faculty at a given institution, has been proposed andeven implemented at several colleges and universities [4], [5], [6].As a leader in this curriculum shift, Wright State University developed an engineering mathcurriculum for incoming first-year engineering students over fifteen years ago [4]. The NationalModel for
learning activityto increase awareness of the infrastructure. The local infrastructure report card will also serveas an ABET assessment tool. Details on how an infrastructure theme will be infused through-out the curriculum are presented.IntroductionThe importance of the infrastructure to the economic development of the country is well un-derstood by engineers and many political leaders in the U.S. As highlighted by the 2005American Society for Civil Engineers (ASCE) Infrastructure Report Card1, the United States’infrastructure is in very poor condition, and was given an overall grade of D. Because ofthese infrastructure needs, civil engineers of the future will need to be skilled at maintainingand upgrading in-place infrastructure in addition to
Paper ID #32453Adapting an NSF-Funded Professional Skills Curriculum to Train Engineersin Industry: A Case StudyMr. Mark Jason Luchini https://www.linkedin.com/in/mark-luchini-28b1b81a/Mr. David J. Cribbs, Jackson www.linkedin.com/in/david-cribbs-miDr. Dirk Joel-Luchini Colbry, Michigan State University Dr. Dirk Colbry is a faculty member in the Department of Computational Mathematics, Science and En- gineering (CMSE) at Michigan State University. Dr. Colbry earned his Ph.D. in Computer Science and his principle areas of research include machine vision and pattern recognition (specializing in scientific imaging). Dr
. American c Society for Engineering Education, 2021 Redefining Student Preparation for Engineering Leadership Using Model-Based Systems Engineering in an Undergraduate Curriculum University of Michigan George Halow, Professor, Aerospace Engineering and Principal Investigator Maia Herrington, Undergraduate, Computer Engineering and Instructional Aide, Aerospace Engineering Tony Waas, Department Chair and Professor, Aerospace Engineering Siemens Gil Morris, Strategic Project Manager (retired
Paper ID #32972Elementary Teachers’ Verbal Support of Engineering Integration in anInterdisciplinary Project (Fundamental, Diversity)Miss Sarah Catherine Lilly, University of Virginia Sarah Lilly is a PhD student in the Department of Curriculum, Instruction and Special Education at the University of Virginia. She holds a B.S. in Mathematics and English and an M.A.Ed. in Secondary Educa- tion from The College of William and Mary. Her research centers on STEM education, particularly using qualitative methods to understand the integration of math and science concepts with computational mod- eling and engineering design
: Energy Conversion and Conservation, Electrical and Computer Engineering, and Instrumentation. Dr. Hess is a Fellow of the ASEE. American c Society for Engineering Education, 2021 Teaching Power Electronics to Electrical Engineering Undergraduates in an Interactive Two-Semester Integrated SequenceAbstractPower electronics instruction is presented in the context of an innovative, proven five-courseundergraduate curriculum in electric power engineering. For the power electronics portion, thereare five goals accomplished in two semesters within this framework. Courses have a 45-lessonsemester format and use instructional methods shown to be successful for nearly
Technology in Construction(ITcon), vol. 21, (17), pp. 250-271, 2016.[7] A. Anderson, C. S. Dossick and L. Osburn, "Curriculum to Prepare AEC Students for BIM-Enabled Globally Distributed Projects," International Journal of Construction Education andResearch, vol. 16, (4), pp. 270-289, 2020.[8] S. M. Ahmed et al, "Key attributes and skills for curriculum improvement for undergraduateconstruction management programs," International Journal of Construction Education andResearch, vol. 10, (4), pp. 240-254, 2014.[9] A. Ghosh, K. Parrish and A. D. Chasey, "Implementing a vertically integrated BIMcurriculum in an undergraduate construction management program," International Journal ofConstruction Education and Research, vol. 11, (2), pp. 121-139, 2015.[10
four steps of the engineering design process:1. Systems Mapping. Students learn to identify the people, societal issues, and materials that are integral to the assigned team project’s problem space. Through drawing a systems map, students analyze how their project and its intended goal connect to the world around them.2. Pairwise Comparison Chart Activity. Students assume the role of various stakeholders (those invested in the project in some way) to complete a pairwise comparison chart, thus simulating how different stakeholders make trade-offs when determining important design criteria.3. Testing Game Show. As students test their own products, the entire class is brought together to compete in an interactive, game-show style
, economy, and environment and graduate with thefoundation and technical skills supported by systems thinking, multidisciplinary training, andpractical engineering application to confront the challenges found in modern engineering practice[8].Based on data from our previous work with on measuring literacy in sustainable engineering andthe development and results of one teaching module, we proposed the creation of a course at theundergraduate level designed to help students develop sustainable thinking in engineering [9]. Thekey feature of introducing this course early in the curriculum is to ensure that the students aretrained in integration sustainability in their thinking which will help integrate sustainableengineering into whichever discipline
Paper ID #33351Engineering Curriculum Rooted in Active Learning: Does It PromoteEngagement and Persistence for Women?Leanne Kallemeyn, Loyola University Chicago Leanne Kallemeyn, Ph.D., is an Associate Professor in Research Methodologies at Loyola University Chicago. She teaches graduate-level courses in program evaluation, qualitative research methods, and mixed methods. She has been the PI on seven major evaluation projects that ranged from one to five years in length. Her scholarship focuses on practitioners’ data use and evaluation capacity building within non-profits through coaching. She received a Bachelors in
evaluations as challenges in the programming lab. • A weekly survey of an engineering major was added to the first-semester course curriculum. • The second- and third-semester engineering courses, also new, tied directly to the concurrent physics courses, Mechanics and Electricity-Magnetism, with a focus on connecting physical engineering lab work to conceptual physics classwork. • Physics coursework was reconstructed to become more engineering-centric. • Physics grading practices were adjusted to focus on providing student feedback based on well-communicated learning objectives. • Engineering Ethics was no longer a separate course as key engineering-centric case studies would be integrated into the