grow to over 1100 students from an average of 45 majors per year.IntroductionCommunity-engaged learning came to engineering slower than many other disciplines [1] buthas seen increasing examples and scholarship in engagement [2, 3]. Evidence of the increasingacceptance includes the creation of the ASEE Community Engagement Division. While thereare many examples of success, most are driven by individual faculty or small groups and thereare few examples of large scale implementation of engagement. For community engagement toachieve its potential, models that can be replicated or adapted and integrated into the fabric of theinstitutions must be developed. There is still skepticism about service-learning as noted in the2014 ASEE report [4]. It
previously been reported in an abbreviated form [2], and at conferences, but untilthe present publication, there was no archival record of this information to inform the BMEcommunity, or to serve as a baseline. In these data, we found that there was a set of courses taken by most biomedicalengineering students that could be regarded as a core of material. Recently, we have asked howthe findings of that work may have changed. Without the resources of the VaNTH ERC, wewere not able to undertake such a complete study again. Instead, to begin to assess the stabilityand uniformity of the curriculum, we have evaluated 16 programs, eight that were first accreditedbetween 1982 and 1987, and were therefore in our previous accredited sample, and eight
Science and Engineering Education The goal is to deliver an improved learning setting for computer science education. Using the CBE concept, the framework can become portable and be generalized to offer a wider range of services for computer science and engineering education. To determine potential computer science courses, we analyze our curriculum in respect to the CS2008 Review Taskforce 31 sponsored by ACM and IEEE Computer Society. The analyzing process was based on the assignment types, syllabus components, and course specifications in the CS Curriculum 2008 31 , and with respect to the base services of Cloud Computing. The result is illustrated in Figure 4 mapped into the three
teaching and support for qualityinstruction by focusing on four dimensions (core values, core principles, inquiry & analysis, andintegration of professional learning and educational development) at multiple scales (Individual– Community – Institution – Ecosystem) within the IHEs. Figure 2 shows the vision of NLC andits four dimensions and four scales.NLC provides an integrated platform for all those evidence-based high-impact practices (HIPs)that demonstrated positive effect on students learning and sustained success. Creating andadopting open educational resources (OERs) fulfills the core values of NLC – “Inclusive andEquity-Focused” and “Learning-Centered” – and supports the HIPs including project-basedlearning (PBL), to collaborative
, Page 25.602.2 integrating oral and written communication into all facets of the discipline, and providing training in “soft skills” such as leadership, management, creative problem solving, etc.All the while schools are reducing the total number of hours in the engineering curriculum toallow the average student to graduate in four years. 5 Accomplishing all of this is an impressiveundertaking, considering the approach to educating engineers since the 1950s.6Add to this mix the desire of Baylor University to grow in its various research areas, and it isclear that unless emphasis continues to be on quality undergraduate teaching, the demands of theresearch paradigm – graduate resources, labs, facilities, students – will
Systems.Dr. Kari J Lippert, University of South Alabama Dr. Kari Lippert, D.Sc., has over 45 years’ experience as a Systems Engineer serving in various roles in a wide variety of both commercial and government positions. She is currently an Assistant Professor in Systems Engineering at the University of South Alabama. She is a non-typical systems engineer having started her academic career in the biological sciences. She then moved into theoretical chemistry and biochemical simulation, then big data and databases, then systems, then cyberspace defense and network security. Analysis, design, implementation, integration, testing, requirements management, change management, risk, architecture, and process improvement – all
quality of life [3]. In this plan, the UN developed 17 Sustainable DevelopmentGoals (SDGs) to address the environmental, economic, and social dimensions of sustainabledevelopment, and provide an outline for specific objectives and targets for metrics of progressfor achievement by 2030. Engineering is one of the fields that has been highlighted as integral insuccessfully achieving the SDGs [4], and as such, sustainability must be integrated intocollegiate engineering curriculum to train the next generation of professionals to meet thesegoals and rise to the future challenges. The Accreditation Board for Engineering and Technology(ABET) validates these updates to curriculum with their student outcomes which highlight theimportance of understanding
basic job functions; project designer and project manager. As a designer, an individual is responsible for completing assigned design and development tasks. As a project manager, an individual is responsible for developing a comprehensive and integrated project plan that can serve as the guide for designing and developing a project. Given these two job functions, the individual responsible for the project becomes the single point of integrative responsibility for achieving overall project success. Given the above responsibility, the project responsible must be skilled in performing the following basic project
ExperiencesIntroductionThe unprecedented effects of the COVID-19 pandemic have further pushed online learningdevelopment and have made distance learning an integral component of undergraduate education[1]-[3]. Although standard lectures have transitioned to virtual space in a relatively seamlessmanner, laboratory components have presented a greater challenge [2]. Maintaining dynamic yetrelevant practical, hands-on learning experiences within a virtual platform has demonstrated mixedsuccess [4]. Since laboratory experiences remain a keystone to biomedical engineering (BME)education, it is critical to design curricular experiences that provide active, sensory, visual learningexperiences to maintain student engagement in the virtual space to promote cognitive
Society of Civil Engineers (ASCE). She is passionate about the recruitment and reten- tion of under-represented minorities into engineering programs, particularly through unique and cross- disciplinary engagement.Dr. Louis A DiBerardino III, Ohio Northern University Dr. DiBerardino is an Assistant Professor of Mechanical Engineering at Ohio Northern University. His teaching and research interests are in first-year engineering, dynamic systems, and musculoskeletal biome- chanics, and integrating curriculum with the entrepreneurial mindset. 2019 FYEE Conference : Penn State University , Pennsylvania Jul 28 Work-in-Progress: Investigation of a Fall-to-Spring Performance Drop
materials science and engineering, there exists commerciallyavailable software that serves to enhance the learning experience of the students in this area.One such software is developed for the IntelliPro Inc. has developed an interactive MaterialsScience and Engineering software that accompanies a textbook on the same topic (Callister,2000). The software is an excellent concept visualization and enhancement tool, but it is not avirtual laboratory. Another effort in the direction of multi-media virtual laboratories in the areaof Mechanics and Materials science was recently reported (Khanna et al., 2002). The authorshave developed, as part of an integrated mechanics and materials course, a virtual laboratorymodule on tensile testing which is an
the math sequence in pre-calculusor a higher level of math if they score well on the math placement test and culminate thesequence in differential equations. The four-year graduation plan requires students to begin inCalculus I; however, almost half are only prepared for pre-calculus and are forced to start oneclass behind in the math sequence. Even with prerequisites in the curriculum and establishedmath tutoring resources, math progress continues to be an issue and one of the main reasonsstudents discontinue the program. This paper examines why math preparation and progresscontinue to be an issue at Virginia engineering programs and evaluates what solutions exist toovercome deficiencies. For schools in Virginia and West Virginia, this study
American Society for Engineering Education, 2011 Interdisciplinary STEM-Business Graduate Certificate in Entrepreneurship ProgramAbstractEfforts to merge entrepreneurial training into graduate STEM education face many obstacles toimplementation. These include curriculum crowding, STEM faculty opposition to time spentoutside the research laboratory, STEM student focus on traditional opportunities in largetechnical organizations, and lack of coordination between STEM departments and colleges ofbusiness.This paper will describe efforts to first embed entrepreneurial research commercializationtraining into an interdisciplinary science/engineering graduate program. We will then describethe creation of a more
Engineering and Technology and are integrated into the course as specific learning objectives. • Memo: Formal document that engineers use to make requests, give announcements, and communicate report findings. Business memos have been found to be one of the documents that engineering employers encourage to assess along industry and academic guidelines when students take technical writing courses [12]. In this course, students prepare an engineering memo describing the results of an experiment in probability modeling. In this module, students complete an experiment testing expected values from binomially distributed data against individual trials of an experiment. Students synthesize their data
students were likely to encounter in professional practice 5, 6. EC 2000 Criterion 3fstates that an outcome of accredited engineering and technology programs should be graduateswho can demonstrate an understanding of professional and ethical responsibility 7. Subsequent Page 13.1299.2to the EC 2000 implementation, the engineering education literature has generated a largevolume of material that discusses a variety of pedagogical methods and curriculum integrationmethods 1, 2, 6, 8, 9. However, the literature appears to be lacking in long-term studies of trends inethical judgment among engineering students.Much of the instructional material
computational thinking in children.Digital media is taking over adults’ lives and children’s of all ages. Digital media such as tabletsand applications have entered the educational system and become popular worldwide. Chiongand Shuler (2010) demonstrated that apps could successfully sustain children’s’ learning as wellas their interest. Moreover, Couse and Chen (2010) called for “more fully integrate technologyinto the curriculum to encourage the active engagement and thinking of young children” (p.76).Hence, in order to integrate apps into educational material and curriculum, it is important toselect the apps that promote children’s learning. Therefore, the goal of this study is to review andselect the apps that potentially promote computational
extreme conditionsdissonance can describe a contrary condition, it doesn't have to be that extreme. In fact, in its lessintense state, dissonance can be described as that which is not accepted or integrated into theexisting framework or model. When it initially occurs, dissonance is often attention-gettingbecause an observation does not fit into a preexisting understanding or knowledge of theenvironment. As an example, advertisers use this model to great effect, changing promotions,billboards, commercials on a regular basis. This is in an attempt to get your attention andhopefully convince you to buy their product or service.In an academic environment cognitive dissonance can be used as an opportunity for learning4.Dissonance has been described
practicality of the ideas. A written RFP was also submitted and,based on the two evaluations, a "winner" was recognized. The course went on to use an RFP inthe design of a gas turbine engine cycle for a high altitude long endurance aircraft used togather intelligence. Concepts for innovation and creativity were also evaluated on the courseexams.IntroductionMuch of what is included in most current engineering curriculums is very similar. This isusually attributed to the assessment process prescribed by ABET, Inc. In particular, the GeneralCriteria 3, a-k Student Outcomes for an engineering program are usually adopted by thedepartments as their evaluation outcomes for a program.3 Many of these student outcomes arerooted in topic areas that are easily
Society for Engineering Education 2. To implement the technology/engineering portion of the Massachusetts Science and Technology/Engineering Curriculum Frameworks (MSTECF)[1] in grades K-6; and 3. To develop curricular materials and prepare teachers so that the project is self-sustaining after the NSF grant expires.Massachusetts is one of the few states to have mandatory curriculum standards in engineeringand technology at the K-12 levels and appears to be the only state with such standards in the K-6grades) which specifically incorporate engineering and technology topics. Hence, Massachusettsis an ideal venue for the extension of NSF’s previous science and mathematics initiatives to theengineering disciplines.More details on
engineering(Hispanics, African Americans, and women), are discouraged by being grouped with peers whohave coding experience or have otherwise been involved with computers before.Computer Science service classes will continue to encompass students from many diverse majors, asmore degree plans require a coding class. Coding does not always come easy for these students. Thispaper examines assignment choice in an undergraduate CS-1 course. Guided by the SelfDetermination Theory, the authors will implement assignment choice as a means for students to plana path to meet the course learning objectives. We will integrate the choices in the curriculum intoCanvas, the Learning Management System, and provide a course grade calculator to students.Students
Professor in the Mechanical and Biomedical Engineering Department at Boise State University. His research interests include simulation modeling for engineering education, vibrations, and acoustics.Seung Youn Chyung, Boise State University Dr. Yonnie Chyung is an Associate Professor in the Department of Instructional and Performance Technology at Boise State University. She received her Doctor of Education degree in Instructional Technology from Texas Tech University, and her Master’s degree in Curriculum and Instruction, with a specialization in Computer-based Education, from Southern Illinois University, Carbondale, IL. Her research interests have been focused on the development of self
Galileo Project, is an extension of the university’s already-successful da Vinci Project, now entering its fourth year. This paper describes the goals andobjectives of the program and documents progress made during the first nine months.IntroductionThe University of Connecticut School of Engineering, in partnership with the UCONN NeagSchool of Education, selected local school districts, the Greater Hartford Academy for Math andScience, and local industry, received an award from the National Science Foundation’s GraduateTeaching Fellows in K-12 Education (GK-12) Program1 to develop and implement an innovative,comprehensive, affordable, and accessible program to integrate engineering into the secondaryschool curriculum. This program, called the
in an undergraduate bioengineering curriculum requires students torapidly acquire and apply more focused technical skills within the senior design course. Betweenthe core curriculum, track electives, and extracurricular experiences, different students may havesignificantly different experience, perspectives, and preparedness for certain types of projects bythe time they enroll in senior design [4,17]. While an argument can be made that acquiring newskills can be a valuable learning experience, there is also plenty of evidence to show that moremeaningful learning happens when students are guided and given support when learning newskills [2,3,5,9,18]. Given the existing variety of coursework in the core curriculum for bioengineering
considered in terms of its value to engineers with a Bachelor’sor Master’s degree, and while recalling that some topics will be covered in more detail later inthe curriculum. This assignment of topics is important not so much to prepare for elimination oftopics, but to assign how much time will be spent on each, and in guiding selection ofappropriate projects. Category a) topics should be given more emphasis in the course thancategory c). In the course described here, introduction to the open-ended design process andsynthesis of a variety of Mechanics of Materials topics into design of a machine or structure wasassigned category a) status. A significant open-ended design of an authentic machine orstructure was thus deemed suitable as a concluding
2006-901: MADE IN FLORIDA: A STEM CAREER OUTREACH CAMPAIGNMarilyn Barger, University of South Florida MARILYN BARGER is the Executive Director of FL-ATE, the Florida Regional Center for Manufacturing Education housed at Hillsborough Community College. She earned a B.A. in Chemistry at Agnes Scott College, and both a B.S. in Engineering Science and a Ph.D. in Civil Engineering from the University of South Florida. She has over 15 years of experience in developing curriculum in engineering and engineering technology and is a registered professional engineer in the State of Florida.Eric Roe, Hillsborough Community College ERIC A. ROE is the Director of FL-ATE, an NSF Regional Center of
papers in the field of engineering technology education.Ms. Danielle Tadros, Drexel UniversityMr. Christopher Sikich, Sun Valley High School Christopher Sikich is in his sixth year as a high school biology teacher, fifth as a teacher at Sun Valley High School in Aston, Penn. Page 25.935.1 c American Society for Engineering Education, 2012 Microfluidics in Engineering, Science, and Technology EducationAbstract We are integrating microfluidics laboratory experiments and projects into the EngineeringTechnology curriculum and high school science classes with the support of a Type 1 NSF
and drafting[27]. Since, the curriculum has evolved tremendously, however research has shown thatprofessional engineers still may encounter new issues that they were not faced with while inschool [2]. Educators must carefully consider the needs of today's graduates in order to properlyprepare students for the demands of this work. Academic preparation for the profession inengineering-related fields primarily focuses on technical knowledge, leaving little room for othertypes of competencies within the tightly packed curriculum [28]. To respond to these challenges,incorporating augmented reality in an authentic learning activity has potential to help understandhow young engineers view the real world and make informed decisions that they may
supervisoryorganization for a variety of Amateur Radio technical projects.Some of these projects include the integration of the AX.25 packet radio data protocol and theGlobal Positioning System (GPS) for radiolocation, a decade before the inclusion of thistechnology in fifth-generation cellular telephony, and the software-defined radio. AmateurRadio projects are, by definition, non-commercial and open-source and are thus eligible for aninnovative contribution even by undergraduate students in an ECE capstone design course.Amateur Radio technical resources for the capstone design project include reference texts,websites, and conferences. The ARRL and TAPR also publish a wide variety of technicalpublications, which are valuable resources for an ECE capstone design
software such as MATLAB.Robotics integrates computer programming, electronics and mechanical design into a finalproduct or system. As such, it provides an exciting platform for hands-on learning1-7. However,the lecture-only format of the typical robotics courses cannot take full advantage of this. It ispossible to change the format into a lecture-and-lab format, as is the case at many universities.But often there is no room in the curriculum for additional credits or additional resources, suchas teaching assistants for the lab, are not available to accomplish this change.This paper presents a hybrid course format as an alternative way to introduce hands-onexperience into an otherwise lecture-only format robotics course. The course runs as a
initiativedesigned to sequentially infuse S-L throughout engineering curriculum as a broad approach topromote development of better engineers, more engaged citizens, along with engineering thecommon good in communities. Chemical, Civil, Electrical, Mechanical, and PlasticsEngineering departments within the college integrated S-L activities into 192 course offerings (5intro, 65 ME, 32 EE, 47 CE, 31 PlE, 12 ChE) across the last five years that involved an averageof 753 undergraduate students each semester carrying out S-L projects. Half of the faculty hasbeen involved.In order to discover student views about S-L activities in engineering courses, and to betterunderstand why students seem more motivated to learn with S-L, administration of 399 pre-S-Lsurveys