curriculum objectives and requirements, teaching methods and techniques, training ofstudent's skills through laboratory and design experiences, use of computers, oral and writtencommunication, qualifications and teaching load of academic staff, facilities and theiravailability, administration procedures, information system and counseling, admissionprocedures, student performance, competence of graduates, and internal quality assuranceprocedures. It appears, however, that appropriate measures which characterize the dynamics ofchanges made in the past and the preparation of an institution for future changes, being in ouropinion essential indicators of education quality, are rather rarely encountered in the existing andproposed external quality
or full-time undergraduate students in Prescott. The topic of spacedebris was introduced in these classes and it was found that this field can serve as a veryelaborate example pool for applied orbital mechanics, mission planning, spacecraft design (busand payload), remote sensing and space surveillance, and classes in a traditional liberal artscurriculum such as history, policy, and law.Projects like the analysis of satellite fragmentations, interactive web based flux directionalitycalculations, and the long term effects of perturbations on a satellite’s orbit are a few exampleson how this important topic can be included in a university curriculum. Undergraduate studentshave been integrated into research projects in addition to the classes
work oran internship as a replacement for an exchange experience. With the large number of students Page 22.949.6studying abroad, spaces were limited and competitive. Academic advisors matched students withcountries based on class ranking and student preferences.Campus Life: INSA-Lyon was proud of its tradition of integrating sports and music in theengineering curriculum. The preparatory filière “sport-études” combined competitive sports withengineering classes. All students were required to participate in a sport for two hours per week.The preparatory filière “musique-études” combined music studies with the first two years ofpreparatory
engineering education. She integrates her research areas in engineering education and wind energy control systems to help students understand the sociotechnical nature of engineering practice in her own technical field (control systems) as well as other electrical and mechanical engineering specialties via collaborations with colleagues at multiple universities.Stephanie Claussen (Assistant Professor) Stephanie Claussen is an Assistant Professor in the School of Engineering at San Francisco State University. She previously spent eight years as a Teaching Professor in the Engineering, Design, and Society and the Electrical Engineering Departments at the Colorado School of Mines. She obtained her B.S. in Electrical Engineering
effort has been to identify relevant areas of geometry andtopics and to group them in knowledge units. A second objective has been to integratethe instruction of geometry in existing courses early in the curriculum of theArchitectural Engineering program at the University of Texas at Austin, without asignificant change in course syllabi, and without discouraging young students who enterthe program with a very limited knowledge of geometry.The geometric concepts, which I have integrated in the Architectural Engineeringeducation, are presented together with examples of relevant student projects.Geometrical concepts included in the revised curriculumEuclidean geometry, which dates back to the school of Alexandria, remains the primarysource of
information registered in a multidimensional code [6, 7].The term episodic reflects its capacity to hold integrated episodes that extend both spatially andtemporally. It is a buffer because it offers a multidimensional code that allows information fromdifferent subsystems to be integrated and linked to LTM. Such a multidimensional capacity tendsto be computationally demanding, hence the buffer's limited capacity [8]. The buffer is assumedto be controlled by the CE, using conscious awareness as an effective retrieval strategy [9-11].The episodic buffer's prominent feature is information chunking. Chunking is where storagecapacity increases by integrating several disparate features into a single whole [12]. The episodicbuffer involves the more complex
(UAVs),commonly known as Drones, to spark student interest and provide an experiential learningopportunity (ELO) in science, technology, engineering, and mathematics (STEM). Drones,which have become a popular recreational tool among youth, are ideal platforms with enormousscientific value for engaging students in hands-on, inquiry-based learning to develop science andmath skills, thereby focusing on the importance of these skills to succeed in college. The DroneExploration Academy curriculum included at its core the drone design and build, sensor/payload,programming, and piloting to conduct a field-based scientific investigation. The learningactivities were carefully designed to meet the Next Generation Science Standards and the NorthCarolina
and have direct connections in a particular direction. [23]Goals and OverviewThe goals of the workshop are to1) introduce participants to the pedagogy of community engagement and service-learning and2) explore they it could be integrated into their own courses, first-year curriculum our pre- college programs.This workshop will guide participants through an introduction to the pedagogy and engage themin active discussions about how engaged learning can be integrated into their first-year programs.Participants will explore and discuss how to integrate the pedagogy into their own classes.Resources, partnerships and potential barriers will be discussed to provide strategies for successfulimplementation. Participants will be provided additional
2006-937: ENGINEERING STUDENTS' PERCEPTIONS OF ATTITUDE CHANGESIN TEAMWORKDwight Tolliver, University of TennesseeLauren Hines, University of TennesseeJ. Roger Parsons, University of Tennessee-Knoxville Page 11.577.1© American Society for Engineering Education, 2006Engineering Students’ Perceptions of Attitude Changes in Teamwork Page 11.577.2Introduction and Literature Review:The ability to work efficiently on technical teams is an essential skill for engineers. Inrecognition of the importance of this skill, many engineering education programs haveadded technical team experiences to their curriculum. This
of open endedproblems, communication skills and preparation for professional developmentand lifelong learning.While some engineering schools are revamping their whole programs to includethese topics [5], other programs are using simple mechanisms such as requiredor elective courses to integrate these topics in the traditional curriculum. Twocourse that are used to introduce undergraduate research and lifelong learningskills to engineering students are discussed in this paper. The first is a requiredone-credit engineering seminar course, and the second is an electiveindependent study course.Elements of Research and Lifelong Learning SkillsResearch experience is very valuable to undergraduate engineering students. Itprovides them with an
integration of disciplinary components isone potential outcome of interdisciplinary work, but according to this definition, it is not the onlycriterion for interdisciplinarity.Repko (2008)5 argues that interdisciplinarity “should be defined in terms of integration” and that“the disciplines themselves are the necessary preconditions for and foundation ofinterdisciplinarity” (p. 123). The task in an interdisciplinary project is to “identify the perspectiveof each discipline and interdisciplinei and their defining elements relevant to the problem [to besolved]” (2008, p. 122). This process of achieving integration, according to Klein (1996, p.221)14, requires identifying, evaluating, and rectifying differences between disciplinary insights.The OECD
characterizestudents’ prior knowledge and experience with the design process, we conducted a curriculumreview of published course catalogs. This curriculum review aims to inform survey developmentthat can be applicable to a broad set of institutions. The curriculum review sought to assess (1)what percentage of upper-division mechanical design courses require an explicit prerequisite orcorequisite course in design and (2) how that background compares to other core mechanicalengineering subjects. The prerequisite chain for all courses was followed as far back asinformation was available (to courses such as statics and first year math and physics). Weadditionally flagged programs that included a prior design course in their curriculum but did notdesignate that
product teams. Students notadvancing on an original team were allowed to join another product team, or create aninvestment team to develop the funding proposal and alternative funding sources for the productteams. Page 23.386.5To support the accelerated timeline and a highly interactive classroom environment we employedthe use of the “flip classroom.” Select class lectures and course content was presented onlinethrough video and PowerPoint presentations of material and in-class time was focused onpresentations and group activities.Chart 1. Overview of deliverables and timelineThe integration of experiential learning is key to teaching
www.slayte.com Engagement in Practice: The University of Maryland’s Get Out and Learn (GOAL) Engineering Kit InitiativeUndergraduate engineering education often reinforces an arbitrary sociotechnical divide thatattempts to isolate technical skills from their embedded social environments (Cech & Sherick,2015). Engineering curriculum focuses primarily on developing technical skills, often withoutconsideration of the social (e.g., cultural, political, economic) contexts within these technologies,skills, or training are situated. Service-learning opportunities for engineering students and facultyrepresent one opportunity set for bridging social and technical knowledge and skills. Furthermore,service-learning courses can
in Engineering Service-LearningAbstractAttracting and retaining women in engineering is critical in the USA today. While women arecoming to college in overrepresented numbers, they are not represented equally to men inengineering majors. Though a university can only have limited impact on the attrition of womenin the engineering workforce, we can (and must!) work to improve recruitment and retention andto graduate women with adequate preparation for an engineering career. An increasing numberof engineering programs are integrating service-learning (S-L) into their curricula.For the past eight years of one S-L program, students in a college of engineering have beenwidely surveyed at the beginning of their studies and at the end of each
and capable of studying STEM fields inpost-secondary education is critical to our nation’s future success. The American Society forEngineering Education, (ASEE) published an analysis of current practices and guidelines for the future9and is involved in an ambitious effort to improve K-12 engineering education and outreach. 544A Brief Review Outreach Programs for Engineering and K-12 Engineering Curriculum The literature on outreach programs and outreach program assessment is vast. However, there islittle information on assessment of K-12 engineering outreach programs16. A review of K-12engineering outreach programs10 describes several different models. The review notes that it has
courses assist thedevelopment of student creativity, use of open-ended problems, development and use of moderndesign theory and methodology, formulation of design problem statements and specifications,consideration of alternative solutions, and feasibility considerations. A capstone design sequenceat the senior level provides an opportunity to apply and integrate the knowledge gainedthroughout the curriculum to the development of an instructor-approved project.Starting in Fall of 1998, ME 4811-ME Design Project Planning was added to the list of requiredcourses, creating a capstone design sequence, thereby providing additional time to be devoted to
, A. Farzamnia and L. C. Fan, "Speed Classification of Upper Limb Movements Through EEG Signal for BCI Application," in IEEE Access, vol. 9, pp. 114564-114573, 2021.21. Sukumaran, B., Jahan, K., Dorland, D., Everett, J., Kadlowec, J., Gephardt, Z. and Chin, S., 2006. Engineering Clinics: An integration of research into the undergraduate engineering curriculum. CUR quarterly, 26(3), pp.115-121. 16
aerospace engineering program (Likert-scale from strongly disagree to strongly agree). a. There is a conflict between my personal values and the job opportunities available in the aerospace engineering industry. b. The ethical curriculum I have received in my aerospace engineering courses so far has prepared me to engage in respectful and challenging dialogues with my peers. c. My aerospace engineering professors include discussion of complex societal issues in our class time. d. In today’s world, an engineer has no responsibility for how the technology that they develop is ultimately used. e. I am concerned that I will have to take an aerospace engineering job that does not
and project management into engineering technology programs. Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exhibition, Session 1348.73. Alford, E. and T. Ward. 1999. Integrating ethics into the freshman curriculum: an interdisciplinary approach. Proceedings of the 1999 American Society for Engineering Education Annual Conference & Exhibition. Session 2561.74. Marshall, J. and J. Marshall. 2003. Integrating ethics education into the engineering curriculum. Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exhibition. Session 1675.75. Davis, M. 1992. Integrating ethics into technical courses: IIT’s experiment in its second year. 1992 ASEE
motivates students to pursue their own interests and make decisions about how to solve the complex problems in an integrated problem-solving environment. • PBL increases students’ confidence in their learning capabilities. It encourages the students to dig more deeply into a topic and expand their interests. • PBL is suitable for introductory science and engineering classes. • PBL provides opportunities for students to learn other skills desired by today's employers, such as collaboration with others, commitment to quality, timeliness, and continuous improvement. • PBL helps the students to possess an interest in lifelong learning.At our institute, MFG 407 (Plant Design/Material Handling) is a senior
of both the able-bodied and the paraplegic user. There are a numberof reasons why the wheelchair user is currently excluded from these environments. Theseinclude parental fears for students, student’s fear of inadequacy, promotion of the subject andthe fact that managers, trainers and teachers feel that the environment is unsuitable for thewheelchair user. Extra effort in the area of the integration of the paraplegic user into theengineering environment is both timely and necessary. With new and current legislation inIreland, the need to integrate people with disabilities in engineering environments will grow.The Equal Status Act 2000 makes it illegal in Ireland to discriminate on the grounds ofdisability. The legislation states that an
. She also serves as Director of the Craig and Galen Brown Engineering Honors Program. She received her BS, MS, and PhD from the College of Engineering at Texas A&M. Kristi works to improve the undergraduate engineering experience through evaluating preparation in areas, such as mathematics and physics, evaluating engineering identity and its impact on retention, incorporating non-traditional teaching methods into the classroom, and engaging her students with interactive methods.Dr. Michael S Rugh, Texas A&M University Michael S. Rugh is an Associate Research Scientist for the LIVE Lab at Texas A&M University. He has a B.S. and M.S. in Mathematics and a PhD in Curriculum and Instruction. He received the
Paper ID #43827Board 17: Work in Progress: Promoting Equitable Team Dynamics in aSenior Biomedical Engineering Design CourseDr. Jennifer H Choi, University of California, Davis Jennifer Choi is currently an Associate Professor of Teaching in the Department of Biomedical Engineering (BME) at UC Davis. In addition to teaching core undergraduate courses, Jennifer is aimed at integrating engineering design principles and hands-on experiences throughout the curriculum. She has interests in engineering education, and curricular innovation. Prior to joining UC Davis, Jennifer taught in the BME Department at Rutgers University, and
Page 25.492.45 http://studyabroad.ncsu.edu/At NC State University, international study is increasingly integrated into the curriculum. It isessential for a students’ international experience to be integrated into their plan of study 6whereby differentiating themselves from the more than 1,100 that will graduate from just thisCollege of Engineering, not to mention the 70,000+ plus graduating with an engineering degreenationwide and the over 3/4 million engineering graduates worldwide – just in one year alone. Figure 4 – Curriculum Integration for Engineering StudentsImplementationDuring the five week program, students split time between classroom lectures/activities, culturalevents, personal travel, company site
andcomplex problems,” can be achieved through educational practices, such as first-year seminars,learning communities, E-Portfolios, service learning courses, internships and capstone projects(7). Barriers that exist for integrative learning in higher education today often point to afragmented undergraduate curriculum (collections of independent classes in general education,specialized study, and electives) and the organization of knowledge into distinct and separatecolleges and departments, “even though scholarship, learning, and life have no such artificialboundaries” (p. 16) (7). Learning communities, capstone experiences, and service learningprojects can transcend these barriers by organizing around interdisciplinary themes, linkingcross
broad education necessary to understand the impact of engineering solutions in a global and societal context,• a recognition of the need for, and an ability to engage in life-long learning, and• a knowledge of contemporary issues.It appears that service-learning team projects have the potential to ensure students learn anddemonstrate these qualities in addition to the ability to apply engineering to the design andanalysis of systems and experiments.How to fit more material into an already packed curriculum is, of course, a continuing challengeto engineering educators and students. Service- learning offers a way to integrate activitiesdesigned to strengthen abilities in technical subject matter with otherwise separate activitiesfocused on
T.M.Anderson (Eds.), Integrated and Holistic Perspectives on Learning, Instruction and Technology: UnderstandingComplexity, Dordrecht: Kluwer Academic Press, 2000, pp.129-158.11 Buechner, Frederick, Wishful Thinking: A Theological ABC, New York, Harper & Row, 1973, p. 95.STEVEN H. VANDERLEEST is a Professor of Engineering at Calvin College. He has an M.S.E.E. from MichiganTech. U. (1992) and Ph.D. from the U of Illinois at Urbana-Champaign (1995). He received a “Who’s Who AmongAmerica’s Teachers” Award in 2004 and 2005 and was director of a FIPSE grant “Building IT Fluency into aLiberal Arts Core Curriculum.” His research includes responsible technology and software partitioned OS
, according to this criterion. Second, the centrality criterion means that projects in which students learn things that are outside the curriculum ("enrichment" projects) are also not examples of PBL, no matter how appealing or engaging.(2) PBL projects are focused on questions or problems that "drive" students to encounter (and struggle with) the central concepts and principles of a discipline. This criterion is a subtle one. The definition of the project (for students) must "be crafted in order to make a connection between activities and the underlying conceptual knowledge that one might hope to foster."(3) Projects involve students in a constructive investigation. An investigation is a goal-directed process that involves
other academic settings is envisioned. The goals of this effort include: 1) invigoratingthe first year engineering curriculum with dynamic and engaging real-world examples of cuttingedge research in the area of nanotechnology; 2) introducing undergraduates at the earliest stagesto the enthusiasm, creativity, and excitement of the academic research environment; and 3)developing a methodology and mechanism with which faculty can utilize multimedia technologyto further integrate their research and teaching efforts. The modules under development will formthe basis of a sustainable and scalable library of materials documenting undergraduatenanotechnology research and readily available to all students. It is hoped that exposure toacademic research at