approach. The long hours spent in the lab and intensity of theassignments brought a unique sense of community to the course. Another result was anemergent collaborative learning environment. Groups actually intermingled and helpedeach other construct new and unique designs. Discussions with members of other teamsoften solved problems and sprouted new ideas.5 ConclusionBy applying directed constructionism to robotics education, we feel we have created alearning experience that has allowed students to develop an improved understanding ofmaterial covered over past approaches. This was accomplished through the integration ofgoal-oriented lab assignments and a traditional lecture-based curriculum. In addition toacquiring an understanding of the
technical experiences can be in a research group,the benefits of which are that students develop domain expertise, gain an understanding andappreciation of the research process and its practice, and acquire team, communication, problem-solving, and higher-level thinking skills. Students with this experience are better prepared toaddress the remainder of their undergraduate curriculum successfully, as well as being equippedto attend graduate school. This paper describes a model developed to engage students inundergraduate research and to deliver the benefits and responsibilities of a small research lab totheir hands. This model, based on the affinity group model, formalizes functional tasks withinthe lab as well as serving as a foundation for
learnimportant fundamental subjects in a well structured yet open minded and supportiveenvironment.Many high schools offer courses in engineering. Due to a lack of pre-requisite classes, thesecourses are usually introductory in nature and do not offer opportunities for students to studyvector and calculus based engineering mechanics1. The course coverage in GESN is the same asthat offered in a freshman or sophomore university level statics class, making it unique for a highschool curriculum. Exposing high school students to engineering before they apply to a collegeor university is beneficial since the rigorous course load of a university program makes itdifficult to complete an intended major without adding an extra year (or more) to the requiredtime.2
intent to address these broad themes at the University of Arkansas through an innovativecombination of traditional coursework with an industry-like work environment, which is then Page 5.407.1overlaid on state-of-the-art research in high performance microelectronic-photonic materials,devices, and systems. The training required to master these four themes will be integrated intoeach student’s academic curriculum and research efforts.In June 1997, Dr. Greg Salamo at the University of Arkansas received grants from the NationalScience Foundation EPSCoR Program (NSF) and the Arkansas Science and TechnologyAuthority (ASTA) to create an
addressingthe following research questions: 1) How does the combination of programming and electronics exercises and design activities affect student engagement when learning programming concepts? 2) How does learning about the relationship between programming and electronics influence students’ understanding of commonly encountered technologies like smartphones and computers?MethodThe outreach activities described in this paper took place in the Spring of 2015 at South MiddleSchool, an economically and racially diverse school serving the residents of Boise, Idaho. Theactivities were carried out in two 8th grade and one 9th grade technology classes. We worked withthe school’s Technology and Engineering teacher to integrate the
; advances in its enabling technologies. This includes miniaturization of devices,low-cost and high-speed networking and communication, and the rise of cloud computing anddata analytics5. In the realm of ECE education, IoT is an ideal platform that encompasseshardware and software design, along with a systems integration approach. The traditionalundergraduate ECE curriculum may include core or elective courses that introduce students tovarious enabling technologies of IoT, such as data acquisition, computer networks, wirelesscommunication, embedded system design, and digital signal processing, among many others.This provides an opportunity to leverage existing courses in order to incorporate aspects ofconnectivity and remote monitoring in
22.946.1 c American Society for Engineering Education, 2011 International Articulation Issues an Engineering Technology Education Response to Global ChallengesAs part of Northern Kentucky University‟s (NKU) strategic plan in 2007-2012, the universitystated – that increasing globalization will require the university to become more international inscope. In accordance with this policy the engineering technology division has undertakeninternational student recruitment efforts and articulation agreements with universities abroad.This paper will discuss challenges in formulating such articulation agreements while maintainingthe integrity of existing accredited programs. The paper explains what
, e4usa [7] found that administrators from a singleschool site reported a desire for a more holistic approach to adopting engineering at the highschool level than simply providing a curriculum. This included reporting a desire for professionaldevelopment for teachers, connections to larger curricular and standards movements, andconnections to industry or community. Several studies have also explored the role of administrators within STEM integrationand broader STEM initiatives in order to understand how administrators can facilitate or hinderthe success of such initiatives [8,9]. For instance, in an evaluation of a state-wide multi-yearinitiative to increase the use of STEM integration in high schools, Havice et al. (2019) found
Paper ID #35293Making an Olin Grand Challenges Scholars Program: Co-Creating withStudentsDr. Alison Wood , Franklin W. Olin College of Engineering Dr. Alison Wood is an assistant professor of Environmental Engineering at Olin College of Engineering. Her academic interests include water and sanitation, interdisciplinary thinking and approaches to environ- mental and sustainability problems, and decision making in complex systems. Dr. Wood is also pursuing her interests in the areas of equity and justice through education and engagement with context and values. She serves as the Director of Olin’s Grand Challenges Scholars
user to be connected to a computer. In 2009, NASA awarded Georgia Tech a contract to develop online professionaldevelopment (PD) courses for STEM teachers. One of the goals of this project is to supportteachers’ professional development through an online curriculum designed to enable teachers tolearn skills for integrating technology into the classroom. Traditionally, this type of professionallearning has been conducted face-to-face in workshops and summer institutes led by schoolsystems, colleges and universities, educational support agencies, and private corporations.However, this model only reaches teachers who are either within commuting distance of theservice provider or are willing and able to travel to a remote site for sometimes
1 Influencing Elementary Students Perceptions about the Work of an Engineer Juliana Utley, Drew Gossen, and Toni Ivey Oklahoma State UniversityAbstractMost of pre-college engineering curricula is designed to increase students’ understanding ofengineering and change their perceptions about the work of engineers. The purpose of this studywas to explore students’ potential changes in perceptions of the work of engineers afterparticipating in Engineering is Elementary (EiE™) curriculum and instruction. While findingsrevealed a significant increase in students’ conceptions of
interactive interface betweenhumans and computers under the concept of hypermedia and on-hand items like pensand paper. This enabled bi-directional cooperative learning in an easier manner andcontributed to the removal of more than a few of the boundaries between learning andteaching². The third step described some essential capabilities for multimediatelecommunications and conceptual models to be introduced. This enabled a realisticsolution for the use of multimedia telecommunications in a widespread range ofpersonal and social communities, on the conceptual configuration of multimediatelecommunications schemes with real-time software³. Therefore, here are some typicalbasic concepts, concrete schemes and clinical practices integrated on real
Learning, Agility, and a Focus on the individual.These values are related to the program mission as the program is built around the concept ofengaged learning: discovery-based education and learning by doing. Classrooms are defined notas lecture halls but as engineering studios. Courses are delivered not as lengthy exercises intheory but as integrated opportunities to apply knowledge in real-world projects. The expectedoutcome of the program is an agile engineer, a lifelong learner with a comprehensive set of skillsappropriate to the needs of today and tomorrow. Agility also characterizes the program itself:streamlined, purposeful and flexible in adapting to changes in pedagogy, knowledge or the needsof its stakeholders. We also express the brand
Department of Architectural Engineering at the Pennsylvania State University. He is the Director of the Partnership for Achieving Construction Excellence (PACE) at Penn State. Rob is an invesDr. Ryan L. Solnosky P.E., Pennsylvania State University ©American Society for Engineering Education, 2023 Contributions of interdisciplinary learning towards AE graduates’ success: and industry perspectiveAbstract Interdisciplinary learning plays an important role in the field of Architecture, Engineering andConstruction (AEC). However, ingraining interdisciplinary learning into a curriculum is both an importantand challenging need. Previous studies have found that
component will play an even more important Page 5.95.2role in the curriculum and student and faculty development. As a result, the InternshipProgram continues to expand. It now develops and distributes relevant publications toassist students and industry. This includes the Rowan Engineering Resume Book. Thispublication contains all of the resumes of Rowan students and is made available to allparticipating companies. The success of the program is evident from the positive program evaluations bystudents and industrial participants. Table 1 lists the student participation by year ofstudy and Table 2 lists the student participation by discipline. The
. (2001). The Sophomore Engineering Clinic I: Integrating Statics, Solid Mechanicsand Product Development in a Sophomore Level Design Course. Proc. Conf. Amer. Soc. Eng. Edu., Albuquerque,NM.11. Marchese, A. J., Mandayam, S., Chen, J. C., and Schmalzel, J. L (2000). Reinventing the Design Curriculum.4th Annual Conference of National Collegiate Invention and Innovation Alliance, Washington, DC.12. SnoRhino: The Only Attachable Footrest for Chairlifts. www.snorhino.com. December 2002.13. Rowan, H. M. (1995). The Fire Within: The Story of Inductotherm. Penton Publishing. Cleveland, OH.Biographical InformationK. Mark Weaker is the Rohrer Professor of Entrepreneurial Studies and the Director of the Center for Innovation atRowan University. He is an
process, and familiarize theparticipants on the instrumentation and control aspects that have broad applications includingnuclear. The workshop featured carefully developed lectures, as well as lab/in-class demonstrationsand a hands-on project involving parts integration, coding, and testing. Thus, besides disseminatingthe fundamental knowledge on nuclear power, the workshop had appealing and meaningful elementsthat educators can use to encourage students towards STEM field in general. Following theworkshop, educators implemented the modular lessons into their curriculum, and reached out adiverse student population in North Texas at high, middle, and elementary school grades at theirinstitutions
Mathematics. Salient points of this paperinclude the original concept of laboratory integration for deeper understanding of the subjectmatter, the funding process, faculty collaboration, student grant proposals to obtain equipmentneeded for the project, and the design and integration of cell components.I. IntroductionThe manufacturing engineer of today and the coming century needs to be an individual with avariety of technical and interpersonal skills. S/he will serve her/his community in diverse rolesas technical specialists, operations integrators, and enterprise strategists. What industry needsfrom its graduate engineers is the ability to thrive in environments that are characterized bypeople working in multifunctional interdisciplinary teams1.At
Paper ID #34882Building an Effective ABET ETAC Assessment Program from the Ground UpDr. Qudsia Tahmina, Ohio State University Dr. Qudsia Tahmina, The Ohio State University at Marion Dr. Tahmina is an Assistant Professor of Practice at The Ohio State University at Marion. She teaches First Year Engineering and second year Electrical and Computer Engineering courses. Dr. Tahmina is involved in the curriculum development and ABET assessment process for the Engineering Technology program offered at the regional campuses of The Ohio State University.Ms. Kathryn Kelley, Ohio State University Kathryn Kelley serves as
RTOS and introduce basic theoretic topics intheir microcontroller courses. As a result, students who have a good understanding of theory andconcepts of RTOS do not have the opportunity to map their knowledge onto real-worldimplementations. To bridge the gap between conceptual understanding and concreteimplementations, an embedded RTOS educational platform has been established for EETstudents in the Department of Engineering Technology & Industrial Distribution at Texas A&MUniversity as well as in the Engineering Technology program at Northern Kentucky University.This paper only focuses on hardware design and development of the embedded RTOS platform.The laboratory curriculum development and student learning outcomes/feedback will
(http://www.engr.ncsu.edu/learningstyles/ilsweb.html) were also gathered for each student in an attempt to correlate the success of the tutorials for different learning styles. More information about these assessment tools and their use in this study can be found in Brown et al.3.Conclusions This paper reports the use of heat transfer tutorials in a required mechanical engineering undergraduate heat transfer course. Increasing industry demand for graduates to have the ability to use and apply commercial FE packages has created a need for integrating FE instruction into the undergraduate engineering curriculum. These tutorials provide a tool for easily implementing the FE method and application into the curriculum in order to
to develop a pedagogical approach that allows her to relate to and engage learners of various demographic backgrounds and intellectual experiences. Dr. Richardson’s strengths are: Developer; Achiever; Arranger; Positivity; and Harmony. Dr. Richardson received a Bachelor of Arts degree in Biology in 2002; a Master’s degree in Curriculum and Instruction with an emphasis in Science Education in 2004; and a Doctorate degree in Curriculum and Instruction in 2012. Dr. Richardson’s research interests include: Preparation of Future Faculty and Graduate Student Professional Development in Teaching; Science, Technology, Engineering, and Mathematics (STEM) Education; Scholarly Learning Communities; and Active Learning and
all years in the curriculum resulted in an even higher percentage ofagreement. Similar results were obtained in response to the statement that service and academiccourse work should be integrated.The codes of conduct of several engineering professional societies as well as evidence from thiscase study supports the principle that service should be considered part of the engineeringprofession. Integrating service-learning within existing technical courses is a concrete way oftraining students in how and why engineers perform such professional community service.IntroductionIs service considered part of the engineering profession? If service is part of the profession,should it not be considered integral to college programs leading to engineering
, and private foundations bringing over $5M in funding to the college. Most recently, he is working on the development of an electronics manufacturing technician program along with the construction of a completely new and modernized electronics design lab space.Julie A. Shattuck © American Society for Engineering Education, 2022 Powered by www.slayte.com Development of an Electronics Manufacturing Technician Program for Community College StudentsAbstractThe Silicon Valley and San Francisco tech region in California is growing rapidly and has anincreasing need for skilled technicians with integrated abilities in electronics manufacturing
. The past decade has seen an increase in the industry's work load. Engineers shouldbe able to stand the pace to accomplish their work and projects on schedule. In order to increasetime-management and efficiency it is recommended to integrate the fundamental theories withthe hands-on experience in the laboratory and employ effective project management skills (1-3). The undergraduate laboratories curriculum at the PI is designed in-line with the needs ofour sponsors for well prepared mechanical engineering students for various positions in the oiland gas industry, and the broader energy field in general, with the goal to reduce and minimizethe additional training required by the sponsors once graduates enter the work force. Theproposed
integrating the EM, Bio, and STEAM? What studentperceptions result from participating in entrepreneurially-minded engineering coursework? Toanswer these questions, this study reviews the literature on the current approaches that provideexperiential learning to students in an engineering curriculum and presents a case study ofcurriculum intervention that promotes an interdisciplinary experiential learning approach inteaching a computer aid design and modeling class.2 Literature ReviewHigher education plays a key role in the development of human capital in any economy.Engineering schools prepare graduates with the technical skills they need to address the challengesfacing the world. However, technical skills alone do not adequately prepare these
integrating selected ST and SE topics in a sophomore-level design course [14-17], thispaper outlined a possible approach to translate that effort to other stages within an undergraduatemechanical engineering program, specifically at the freshman-level.The baseline STSS results reported here highlight the potential of the proposed intervention tosignificantly improve students’ abilities in ST and SE. For example, average post-testperformance on technical questions was only 53%, indicating plenty of room for learning andimprovement. In addition, the difference in results between the two sections of the STSS –namely, significant change in students’ self-efficacy (perception) vs. no significant change instudents’ performance (direct measure) – emphasizes
comes to this project as the future instructor for thiscourse and is interested in connecting engineering concepts to local problems for students. Desenis interested in investigating contextual energy education and ways to connect localinfrastructural projects to the engineering curriculum. Her research background includesinterdisciplinarity and sociotechnical engineering education.While the landscape mapping for this new course is an important aspect of building acontextually relevant and integrated experience for junior-level chemical engineering students,this process has been equally enriching for two junior faculty who are newer to the wide-rangingactivities happening outside of the engineering college. Through this work, we have sought
. ≠ Create a formal program to connect faculty to community groups (local andinternational). ≠ Develop appropriate projects/experiments for integration of S-L into about fortycore courses in the undergraduate engineering curriculum at UML. ≠ Become an engaged college--engaged with the students, each other as facultyacross departments, and with the community19.The SLICE partnerships include many nonprofit organizations in the local Lowell areaand international projects including a partnership with villages in the remote AndesMountains of Peru. Professor John Duffy has worked to establish on-going partnershipswith villages in remote areas of Peru where students can apply engineering solutions33.His work has included building partnerships with
and sophomore yearsand continuing to integrate entrepreneurship throughout the academic career. Crosscampus collaboration will be accomplished by requiring multidisciplinary project teamsand cross-listed courses open to other disciplines.Goal 2: To provide an environment that encourages the growth of the entrepreneurialculture in the University community.An entrepreneurship environment will provide stimulus and motivation to act with anentrepreneurial attitude in all facets of university life. This environment will be createdthrough faculty incentives for fostering entrepreneurial projects, instituting pedagogicalmethods consistent with an entrepreneurial culture throughout the curriculum, requiringattendance at entrepreneur speaker series