-e93.11 A. G. Dixon, D. DiBiasio, “Integrating COMSOL into a Mathematical Modeling Course for Chemical Engineers,” Proceedings of the COMSOL Conference (Boston), 2008.12 M. B. Cutlip, M. Shacham, “Efficient Integration of Numerical Problem Solving Throughout the Chemical Engineering Curriculum,” Economic Studies, vol. 23, 2008, pp. 68-78.13 S. Mejri, H. Binous, K. Mahgoub, A. Bellagi, “A Model Parameter Estimation Method Using Mathematica Applied to Transient Chemical Engineering Processes.” Computer Applications in Engineering Education, vol. 26 (5), 2018, pp. 1405-1421.14 J. N. Harb, A. Jones, R. L. Rowley, W. V. Wilding, “Use of Computational Tools in Engineering Education,” Chemical Engineering
deliverables that do not address the problem.Design is inherently nonlinear, inefficient, and complex [4], [5]. Students often find thereality of engineering design overwhelming the first time they experience it. They beginundergraduate engineering programs learning science and math through formats steepedin a learning culture that is linear and process-oriented to identify the single answers tocarefully constructed problems. Consequently, students demonstrate significantdiscomfort or reticence when thrust into situations in which they are expected to embracea nonlinear, circuitous process to solve an ill-defined problem. In these circumstancesstudents employ their practiced, linear paradigms and struggle to engage in the requisitework of
byDeGraff and Kolmos [3] in the following: A problem is the starting point of the learning process. The type of problem is dependent on the specific situation of the curriculum, study regulation, semester etc. Normally a semester theme guide which problems can be dealt with. Often semester courses are planned to meet demand from the study regulation and will at the same time support the problem solving process the students have chosen for their project. It is crucial that the problem serves as the basis for the learning process because it will determines the direction of the learning process as well as a problem places emphasis on a question rather than an answer. This also allows the learning content
Taxonomy to specify desired levels of achievement in the CEPC might be problematic, because the Taxonomy requires the use of measurable, action-oriented verbs. However, ultimately, the CEPCTC determined that the EAC’s concern could be adequately addressed without compromising on the use of Bloom’s Taxonomy simply by changing the introductory clause of the CEPC from “The curriculum must prepare graduates to…” to “The curriculum must include topics necessary to….” The latter phrase was quoted directly from the recently approved EAC Program Criteria for Cybersecurity Engineering [10] which were cited by the EAC Criteria Committee as an example of criteria that satisfied their concern
understanding ofdiversity and inclusion and seeks to integrate its principles and practices into thefabric and culture of the college. 2As part of a 2006 report entitled “Moving Forward to Improve EngineeringEducation,” the National Science Foundation identified the following factors as majorcontributors to why some of the best students, with high grades abandon their goalsof attaining an engineering degree.Our student academic success program aims to address some of these issues. 34There are many options for tutoring resources for engineering students at OSU. Thedepartments that
Distribution (ETID) Department at Texas A&MUniversity (TAMU). The ESET curriculum requires students to take an engineering leadershipcourse, ESET 319. The course may also be taken as an elective by other engineering students whopursue an engineering project management minor. Students typically take the course in junior year.ESET 319 encompasses a number of integrated topics that provide for personal development andeffectiveness, interactional effectiveness in workplace relationships, especially in teams,understanding organizational systems, and related topics for holistic development through theremainder of their college work and then well into their careers. The course carries two credits forlecture and one credit for laboratory. In the
analyzed articles justified their study by referencing oracknowledging ABET accreditation" (Hess and Fore 2018). The guidelines presented in 2Accreditation Criterion 3 address student learning outcomes towards ethical and professionalresponsibilities, although they do not define a framework or goals to achieve this outcome (ABETpg. 5). Thus, engineering programs have both the opportunity and responsibility to define theirown goals towards establishing their ethics curriculum. Colby and Sullivan (2008) found a widevariety of techniques and granularity of engineering ethics content through an analysis ofengineering courses.Among engineering education researchers, there is a consensus that ethics
students in reflecting on experience, how to help engineering educators make effective teach- ing decisions, and the application of ideas from complexity science to the challenges of engineering education.Miss Yuliana FloresDr. Hadas Ritz, Cornell University Hadas Ritz is a senior lecturer in Mechanical and Aerospace Engineering, and a Faculty Teaching Fellow at the James McCormick Family Teaching Excellence Institute (MTEI) at Cornell University, where she received her PhD in Mechanical Engineering in 2008. Since then she has taught required and elective courses covering a wide range of topics in the undergraduate Mechanical Engineering curriculum. In her work with MTEI she co-leads teaching workshops for new faculty
for Engineering Education, 2021 Paper ID #33198Dr. Sarah E. LaRose joined the Department of Agricultural Sciences Education and Communication atPurdue University in the fall of 2018 as an Assistant Professor of Agricultural Education. She earneda Bachelor of Science in Animal Science and a Master of Arts in Curriculum and Instruction from theUniversity of Connecticut, and her Ph.D. in Agricultural Education and Communication from the Uni-versity of Florida. Dr. LaRose has over 13 years of experience in agricultural education in secondaryand postsecondary settings. Since joining the faculty at Purdue, Dr. LaRose serves as a teacher educator
, the need for change must be identified. Once identified, a formal introduction to thefundamentals of project management and team culture prior to a capstone experience may berequired. A number of programs have embedded a project management course within itsengineering curriculum to train students before undertaking a capstone project [5,9,11]. So howwell do students embed these skills within their projects? The integration of project and teammanagement can be studied by looking at the direct outcomes of projects and by capturing thestudent feedback on how well they utilized these skills within their projects.In this research, we studied student perceptions of their efforts in managing projects and teams.Two quantitative surveys focused on
presentations, posters, andtechnical reports and are touched upon and developed over many courses throughout anengineering curriculum. An elevator pitch is an additional way to teach students effectivecommunication. Some universities have adopted the "delivering an elevator pitch module"module developed by the University of New Haven-based on the KEEN framework [9] [10] andhave placed it in intro classes, technical classes, or in senior design like the University ofCincinnati [11]. Other universities integrate a pitch competition into a senior design course, likeat Stevens and Calvin College ([12] [1]) or with a business plan competition, like Grove CityCollege [3].The Elevator Pitch Competition before the PandemicThe authors have previously detailed
c Society for Engineering Education, 2021 A Student-Centered Program to Increase STEM Interest through NASA-STEM ContentAbstractThis article is an evidence-based practice paper which is based on NASA Minority UniversityResearch and Education Project (MUREP) Aerospace Academy (AA) program implemented atFlorida Atlantic University (FAU). The program is focused on student-centered methodology forinfusion of NASA-STEM contents into the existing curriculum in middle and high schools. Thisnovel program aims to increase awareness and create interest in underserved minority students inGrades 6-12 for pursuing STEM fields. FAU has designed and embedded the NASA-STEMcontents into Florida’s existing Next
praised by students and department for his outstanding teaching and research excellence. To supplement his teaching and research, he has been involved in numerous professional societies, including ASCE, ACI, ASEE, ASC, ATMAE and TRB. His research output has been well disseminated as he has published thirty journal papers and thirty-nine conference papers. His research interests are 1) Creating Innovative Sustainable Materials, 2) Structural BIM Integration, 3) 4D/5D BIM, 4) Virtual Testing Lab, 5) Innovative Construction Demolition, and 6) Carbon Footprint Analysis on Roadways.Dr. Rachel Mosier P.E., Oklahoma State University Dr. Rachel Mosier is an Associate Professor at Oklahoma State University, with a background in
Bachelor of Arts degree in English and Sociology, a Master of Business Administration, and a Doctor of Philosophy (Ph.D.) degree in Educa- tional Leadership and Research, specializing in Educational Technology. American c Society for Engineering Education, 2021 Providing Support to High School STEM Teachers at Underrepresented Schools Through a Yearlong Professional Development Initiative (WIP, Diversity)AbstractIn addition to being an employment requirement for in-service high school educators,professional development (PD) workshops in STEM fields are vital for keeping up with newinnovations in both theory and practice. Integrating
faculty development). She seeks to identify best practices and develop assessments methods that assist faculty and teachers with student engagement, helping them to navigate the various pathways in STEM. A few of these key areas include engineering identity and mindsets, first year experiences in engineering, integrating service learning into the engineer- ing classroom, implementing new instructional methodologies, and design optimization using additive manufacturing. Dr. Gurganus collaborates with a number of industry partners and consults throughout Maryland in STEM education initiatives. In 2019, Dr. Gurganus received the Northern Maryland Tech- nology Council Leader Award in STEM education. She has written
Paper ID #34742Transforming Introductory Engineering Courses to Match GenZ LearningStylesDr. Sean Michael Quallen, University of Idaho Dr. Sean M. Quallen teaches dynamics, fluid mechanics, and heat transfer. His interests include improving the representation of young women in engineering fields and the integration of gaming and entertainment into modern pedagogy.Dr. John Crepeau P.E., University of Idaho Professor John Crepeau received his BS degree in mechanical engineering from the University of Califor- nia, Berkeley, and his MS and PhD degrees from the University of Utah. After serving as an NSF-NATO
to improve our lessons and add to them, with the goal of providing a morecomplete set of materials that can be shared with high school teachers, which would includewrite-ups and assessments as well as teaching manuals. We are also planning to explore optionsto integrate these lessons in remote summer camps or after-school programs. While the currentpandemic-induced remote education situation will not endure indefinitely, we believe that theseeducational materials and approach may be useful for remote instruction during “snow days” andwill also provide an ongoing opportunity to offer EE-centric STEM outreach to high schoolstudents in remote and rural areas who are often left out of university-based STEM outreachevents and the many STEM events
Systems Engineering, and many years of experience teaching and developing curriculum in various learning environments. She has taught technology integration and teacher training to undergrad- uate and graduate students at Arizona State University, students at the K-12 level locally and abroad, and various workshops and modules in business and industry. Dr. Larson is experienced in the application of instructional design, delivery, evaluation, and specializes in eLearning technologies for training and devel- opment. Her research focuses on the efficient and effective transfer of knowledge and learning techniques, innovative and interdisciplinary collaboration, and strengthening the bridge between K-12 learning and
to shifts in culture and philosophicalapproaches to curriculum and instruction. The changes are often impeded by barriers related tostructural and systemic features within the academic system [4], [8]. From an organizationalperspective, individual barriers are commonly associated with misunderstandings and lack ofcommunication, lack of trust and threats to job status and security [9], [10]. Particularlyconcerning to faculty are changes that affect resources and time [10–12]. Lozano [9] notes thatbarriers are also present at the group and organizational level [10]. The change can be impededby the groups culture and norms, intergroup dynamics and group conflicts. At the organizationallevel, barriers to change can include a lack of strategy
courseAbstractOver the past years, our team has taken a concerted effort to integrate computational modules intocourses across the undergraduate curriculum, in order to equip students with computational skillsin a variety of contexts that span the field of Materials Science and Engineering. This effort hasproven sustainable during the recent period of online transition of many courses, illustrating oneof the benefits of computational modules. The most recent addition to our set of modules includeda visualization component that was incorporated into our introductory freshman course for thefirst time in Fall 2019. Students can perform this module either using local computer labs, accessthose resources remotely, or via their own computers. In the Fall of 2020
through during a design. Tobuild upon concepts learned and components used, few sensors and integrated circuits were added to thedesign to construct the full hardware of a smart street light in figure 3. Smart street lights are the public streetlighting that adapt to the light in the surrounding where they are automatically turned OFF or ON during theday and night respectively. To add functionality to the design, a simple introduction to programming was donewhere participants wrote a simple code to make an LED blink. Fig. 3: Smart street light hardware design.Day 4: Smart Street Light Software Design (Related Disciplines: Engineering, Technology, and AppliedScience, Computer Science)Participants were
‘boundaries’ which define a particular engineering discipline. Summitparticipants dared ask the question: “In the context of the mid-twenty-first century, what is a civilengineer?” Two elements related to this most fundamental question involve the impact oftechnological advancement, and the evolving role of the civil engineer in society.ASCE’s The Vision for Civil Engineering in 20254 (published in 2006) anticipates theevolutionary, holistic nature of the role of civil engineers: “In 2025, civil engineers will serve as master builders, environmental stewards, innovators and integrators, managers of risk and uncertainty, and leaders in shaping public policy.”Obviously, an undergraduate civil engineering program is not sufficient to
: design, construction, and measurement [2]. Dedicatedlaboratory courses have been the successful vehicle to provide the hands-on experiences at someuniversities, such as the University of South Florida (USF) [3], with tremendous success. Whilethe idea of a dedicated laboratory course in microwave engineering is attractive, it is difficult tointegrate such a course into an emerging curriculum with limited resources. The BaylorElectrical and Computer Engineering Department is in a period of significant growth, but atpresent, the department faculty numbers a mere eleven, with only two members presentlyteaching RF/microwave and electromagnetics courses. A second issue that must be tackled ishow to teach both passive and active circuit design
mechanicalengineering largely due to the existence of the liberal arts core curriculum comprised of 84semester credits outside the ME major. Also, it is the opinion of the author that engineeringstudents could greatly benefit from exposure to system dynamics topics and there has beenoccasional anecdotal evidence to support this claim. In response to the above observations, anew 4 semester credit technical elective course entitled Simulation and Visualization of DynamicSystems was created that integrates aspects of visualization (including animation) with atraditional system dynamics course. Prerequisites include Linear Algebra and DifferentialEquations and Engineering Graphics with 3 hours per week being allocated for lecture and 3hours per week for a
. Scott is an active member in the Center for the Integration of Research, Teaching, and Learning (CIRTL) both locally and nationally, as well as the American Society for Engineering Education (ASEE) and the Institute of Industrial and Systems Engineers (IISE).Dr. Daniel D. Burkey, University of Connecticut Daniel Burkey is the Associate Dean of Undergraduate Programs and Professor-in-Residence in the De- partment of Chemical and Biomolecular Engineering at the University of Connecticut. He received his B.S. in chemical engineering from Lehigh University in 1998, and his M.S.C.E.P and Ph.D. in chemical engineering from the Massachusetts Institute of Technology in 2000 and 2003, respectively. His primary areas of
gained. When students are involved in creating new artifacts, they are actively engaged in the subject matter. • Evaluate: At this stage, students are asked to judge an idea. This may involve predicting, experimenting, critiquing, or making an argument from evidence. • Analyze: Students begin to develop higher order thinking. They may be asked to compare and contrast or take a concept and break it into parts to explore the relationships present. • Apply: At this level, students begin to put the information they are learning into context. Here they are able to integrate ideas across multiple situations, or utilize the content in a new way. • Understand: At this level, students demonstrate that
technical development and an afternoon session focused onprofessional development. Lesson plans were scheduled five days a week during a regular workweek. Fig. 1. Major technical and professional topics introduced in the five-week program.In the technical session, important topics such as Python, microcontroller and circuit basics,machine learning, 3D modeling, PCB design, and app development were covered. These topicswere selected as they lend themselves to preparation for certain advanced coursework in thedepartment curriculum. In the professional session, networking, resume building, industry andfaculty interaction, campus resources, mock interviews were introduced in the form of guestspeakers or workshops. In the last week of the program
that work in the real world, with all the attendantconstraints. Therefore, “a new kind of engineer is needed, an engineer who is fully aware of thesystemic nature of the challenges we face” [10]. In response to this and recently revisedaccreditation requirements, there are currently many efforts to introduce sustainable developmentconcepts in various courses across engineering departments to promote an awareness ofsustainability and environmental impact issues and produce sustainability-conscious engineers.Embedding sustainability within the curriculum does not simply mean including new content[11]. If engineers are to contribute meaningfully to sustainable development, sustainability mustbecome part of their paradigm and affect every day
capstone course. It utilizes skills and knowledge acquired in various courses in the curriculum and general education courses to produce a real-life project. In this course, students follow a faculty driven structured process to integrate various components of a project. This course introduces very little new material, rather it helps the student to synthesize skills and knowledge learned in other courses to apply in real-life situations. Prerequisite(s): Department Approval, Upper Division Status, recommended in the final semester, CON357, ARC 364 and CON401W. Level: 400 Credits:3 (FSC Website) The syllabus adapted for the course in 2017 guided students to demonstrate integration ofthe various skills for
curriculum developer,with several challenges. These challenges include defining the applied cryptographycourse with respect to course goals, scope, content, and organization. While there arewell-established cryptography courses offered in the Computer Science and Mathematicsdisciplines, these classes tend to focus on mathematical foundations rather than servicesand applications. Consequently, the developer of such courses finds that resourcesparticularly those relating to “hands-on” activities are lacking.For a lab module designer, creating modules that support an applied cryptography classpresents several unique challenges. For example, the choice of laboratory softwarepresents a unique challenge. This is especially true since most commercial