. c American Society for Engineering Education, 2018 Designing and Building Devices for Industry- A Capstone Design Project ExperienceAbstractLogan Aluminum, an integrated aluminum rolling mill in Russellville, Kentucky partnered withWestern Kentucky University engineering students in a project to design a system to test thestructural integrity of cores used for holding their product. An outcome of project success wouldbe a functioning test machine able to evaluate core strength and thereby allow a systematicassessment to avoid costly core failures.The student team worked with company engineers to establish system specifications and successcriteria for designing a test machine capable of handling two core
AC 2007-1565: SOFTWARE FOR STUDENT TEAM FORMATION AND PEEREVALUATION: CATME INCORPORATES TEAM-MAKERRichard Layton, Rose-Hulman Institute of Technology Richard A. Layton is an Associate Professor of Mechanical Engineering at Rose-Hulman Instsitute of Technology. He holds a PhD in Mechanical Engineering from the University of Washington. His professional interests include modeling and simulation of dynamic systems as well as curriculum and laboratory development in mechanical engineering. He has given workshops on building student teams for the ERM’s Regional Effective Teaching Institute as well as workshops in laboratory development.Matthew Ohland, Purdue Engineering Education Matthew W
. Further, this form of community-engaged learningoffers an authentic setting to develop many of the integrated student outcomes stated in the newengineering accreditation criteria. We contend that effective transdisciplinary learning is a meansto the oft-stated goal of systemic transformation in engineering education, particularly forsustainability aims. However, this complex, dynamic systems view of engineeringeducation represents a radical departure from education-as-usual and thus requires a similarlyradical departure from research- and assessment- -as-usual. It reflects a shift in the unit ofanalysis: from a singular focus on student learning outcomes to a broader view that captureslearning at the transdisciplinary system level. It also
completion problems among underrepresented communitycollege students through a summer research internship program. Developed through a three-yeargrant funded by the NASA Curriculum Improvements Partnership Award for the Integration ofResearch (CIPAIR) program, the ten-week summer research internship program providesopportunities for freshmen and sophomore community college students to participate inengineering research under the supervision of a university professor and a graduate studentmentor. Research topics covered during the internship program include performance-basedearthquake engineering, circuit design for biomedical applications, embedded systems design, andtransistor reliability issues in nano-scale circuits. The first two years of
, assessment; Curriculum Design, reform, evaluation, and classification of first-year engineering curriculum; Experiential Integrated experiential learning curricula & global/societal problems including service, research, and entrepreneurship for the first year; Projects Project-based, activity-based, and hands-on learning in the first year; Design Teaching and practicing the engineering design process in the first year; Problem- Creative, open-ended problem-solving courses and/or related teaching activities in first-year Based engineering programs; Teamwork Insights into teaming, group work, and team/individual assessment among first-year students; Diversity Inclusivity and
. Page 15.1280.410. Have demonstrated an awareness of the impact of solutions in global, economic, environmental and societal contexts.11. Have demonstrated a commitment to quality, timeliness and continuous improvement.Identifying Program Outcomes and Performance CriteriaRodgers defines outcomes as “statements that describe what students are expected to know andbe able to do by the time of graduation that enable them to meet the objectives”19. Six outcomeshad been developed in the original assessment model for the program at MU, but they werenarrowly focused on the technical aspects of the curriculum. These outcomes were revised andthe list was expanded to meet the a to k listing in criterion three of the TC2K TAC of ABETcriteria20.In order
transfercredit. Only credits for which grades of C- or above are earned may be applied toward thedegree and such grades do not count in the institutional grade point average.If a student wishes to participate in the fall or spring semester in a program that is not offeredthrough our institution, he/she must apply for a leave of absence and demonstrate a compellingreason why she/he cannot use an institutional program. If approved, the student cannot useinstitutional financial aid or scholarships in the term away. They are required to register with theinternational safety support system to which our institution subscribes.Curricular IntegrationTo assist students with curricular integration, engineering faculty and global educationprofessionals collaborate
generation,digital signal processing (DSP), measurement, filters, windows, curve fitting, probability andstatistics, linear algebra, numerical methods, instrument control, program development, controlsystems, and fuzzy logic. These features of LabVIEW and Mathscript have helped us inproviding an Interdisciplinary Integrated Teaching and Learning experiences that integratesteam-oriented, hands-on learning experiences throughout the engineering technology andsciences curriculum and engages students in the design and analysis process beginning with theirfirst year.Bisection MethodOne of the first numerical methods developed to find the root of a nonlinear equation f ( x) 0was the bisection method (also called binary-search method). Since the method
investigate future STEM careers. Several of these programs have successfully motivatedstudents into engineering careers leading to higher enrollments and retention of collegeengineering graduates. Project Lead the Way (PLTW), a pre-engineering program, has becomeone the well-known national programs providing students possibilities in the engineering andscience fields. 4,5 Project Lead the Way (PLTW) is an engineering curriculum that teaches students in K-12engineering fundamentals including developing problem-solving abilities, critical thinking andkey professional skills starting in kindergarten and continuing through high school.4 Through thehigh school engineering pathway, students are introduced in their first core classes to
universally accepted as adevelopmentally appropriate part of the early childhood education curriculum [2]. Similarly, therole of play in children’s understanding of mathematical and spatial relationships has also beenwell established within the field of child development and early childhood education [1]. Muchof the literature discusses children’s development of domain independent abilities such aslanguage, social development, motor skills, and noticing of novelty. Several studies focus onlearners’ development of privileged domain knowledge that requires simultaneous processingand integration of multiple concepts and the abstraction of ideas (e.g. physics, engineering,mathematics).While the term play is used to signify young children’s spontaneous
related to electrical en- ergy, and has won several teaching awards. As Associate Dean, he oversees the undergraduate programs for more than 5000 engineering and science students at Clemson. Additionally, he is responsible for the college’s international affairs and study abroad programs, accreditation, curriculum, instruction, and re- cruiting, and serves on the team leading a university-wide internationalization project. He is a member Page 24.832.1 of the Executive Committee of the Global E3 consortium. During the 2012-2013, Collins was selected as an American Council on Education (ACE) Fellow, and in 2013
designexperiences of students: a venue within undergraduate engineering education where leadership isoften addressed. The goal of this paper is to make more explicit how leadership works within theArmy and West Point, to give engineering educators additional tools and models that they mayconsider in developing engineering leadership programs and processes within their owninstitution.IntroductionAs the engineering profession continues to emphasize leadership as an integral part ofengineering practice, many engineering leadership programs and courses have developed acrossthe United States and North America more broadly [1]. Because engineering has traditionallynot been considered a leadership profession, engineering leadership has not gained traction as
education coupled with enterprisedevelopment vision (2). There is a need for manufacturing engineers with an understanding ofthe integration of people in the manufacturing process, the integration of production activitieswith the concerns of the whole business from the suppliers to the customers, and the need toengage in continuing professional development, improvement and lifelong learning.European Institutions that are aware of the need for cross-disciplined manufacturing engineersare beginning to "re-engineer" their academic programs to provide an integration oftechnological, organisational and human-factors disciplines. Universities and other academicInstitutions are required to assess the philosophy of their programs, and the level and spread
courses Group 11 frontier research fundings and applicationsGroup 3 no answer Group 12 no answer Problems and context from prerequisits courses propagate into current course for open-ended problems created in the current course. They don't jut take a **Curriculum change for the classes - we courese and then don't see/ use it again (verticle need more classes focusing problemGroup 4 integration). Also consider longitudal integration Group 13 solving topics/ reasoning topics. 1) More coordination among courses
Building Locker Mini-Worlds: A CAD Course with a Semester-Long Project Abstract: Computer-aided design (CAD) education requires extensive practice for students tograsp 3D spatial thinking effectively. In this paper, we present the design and implementation ofa CAD curriculum within the Creative Technology and Design undergraduate program at theATLAS Institute, University of Colorado Boulder. The curriculum aims to cultivate students'proficiency in 3D spatial thinking through a semester-long project focused on constructingminiature worlds within lockers. Through this project-based approach, students engage inhands-on learning, applying CAD techniques while fostering collaboration and creativity. The curriculum design integrates Project
Opportunities and the CEAS Dean’s Office. Theprogram content and curriculum were designed to prepare underrepresented ethnic minoritystudents for success in the CEAS at ASU. The curriculum focused on engineering design,technical communications, and included a design project. Academic scholarships were awardedto all participants based on a team design project competition. The competition included thedesign of web pages, documentation in individual design notebooks, and a presentation toindustry representatives and parents.During the summer of 1996, 44 students participated and completed the program. As arecruitment tool, the program was an overwhelming success with 43 of the 44 studentscompleting the academic year (one chose not to because of the
. manufacturability, and sustainability (e) an ability to identify, formulate, and solve engineering problemsIntegrates liberal arts and disciplinary (h) the broad education necessary toknowledge. I.B. Integrates the liberal arts with engineering understand the impact of engineering knowledge to understand the impact of engineering solutions in a global, economic
electrical and computer engineering majors[1]. The SEC was developed through Rose-Hulman's participation in the Foundation Coalition,an NSF-funded engineering education coalition [2]. By 1998, this curriculum grew to includemechanical engineering majors and later added biomedical engineering majors. The curriculumoriginally consisted of eight courses representing 30 credit hours in a 10-week quarter system.By restructuring the material, the SEC tried to explicitly demonstrate common threads within thetopics typically covered by a course on statistics, two courses on differential equations, and fiveengineering science courses: Fluid Mechanics, Thermodynamics I, Dynamics, Circuits I, andSystem Dynamics. Over its 23-year-life, the SEC has evolved and
school curriculum. High school courses indesign drafting, machining, woodworking, automation, and automobile technology have oftensparked student interest and enticed them to pursue careers in technology. However, from ourpersonal observations, there has been an increasing trend on the part of the Northern Il linoisregional high schools to cut down on technology programs citing cost of equipment, lack ofteachers, and laboratory space requirements as reasons. This translates into more work forcolleges seeking to promote engineering and technology among school students.Interaction with Area Middle and High SchoolsThe NIU engineering technology programs are offered in two areas of specialization, ElectricalEngineering Technology (EET) and
integrative experience, and a newthree-course engineering sequence that progresses from predominantly science to mostly designcontent. The new three-course engineering sequences will be offered in the same sevendisciplines. This change to the academic program has driven the requirement for thedevelopment of a number of new courses. The new mechanical engineering sequence includes an introductory thermal science course.This course, which introduces cadets to the fundamentals of thermodynamics, fluid mechanics,and heat transfer will be taught to non-engineering majors. This atypical group of studentsforces the development team to construct a completely new course. The engineering designprocess is used as a facility to drive the development of this
installation. One of the goals of the experience is for students tounderstand project management and interdisciplinary collaboration in a hands-on way, and tounderstand that stakeholder engagement is an integral part of the process. The goals,methodology, organizational structure, logistics, lessons learned, and the instructors’observations of the experience are also described in the paper.Overview of Relevant Literature: STEM Study Abroad and Capstone ExperiencesWhile employers increasingly seek “culturally aware” and globally engaged employees,engineering and STEM (Science, Technology, Engineering and Math) students who aspire tostudy abroad often struggle to find room in a curriculum that tends to be highly regimented andheavy on required courses
: . . . The integral statement necessary for formulation in terms of finite element approximation was supplied via the principle of virtual work, which was assumed to be so basic as not to merit proof. . . . We shall therefore show in this section that the virtual work statement is simply a ‘weak form’ of the equilibrium equations.The description of the problem in terms of a weak formulation (or variational formu-lation) means that the problem has been reformulated as a related problem that admitssolutions that satisfy weaker smoothness conditions (and that will lead to a practical nu-merical solution method). Instead of solving an original boundary-value formulation of theproblem, the problem is solved in the sense of “weighted
engineers have solid training in applying engineering principles toanalysis, product design, testing and other technical duties, they are frequently not prepared tounderstand the nature and goals of the companies and ventures that employ them. Many studieshave noted the disconnect in engineering curriculum between the assessment of customer needsas dictated by the marketplace and the engineering of products. In product design anddevelopment engineers are often quick to offer solutions without fully exploring the actual needand market for those solutions. Approaching a problem with this kind of “solution fixation” canlimit an engineer’s contributions in business environments. What business skills do engineersneed to acquire and how does the
undergraduate level, followed by a course that is mainly oriented towards graduate students.In the undergraduate course, we decided to present many more topics in an integrative mannerwith twice the in-depth knowledge. For example, students should be able to design feedbackcontrol in power electronics and electric drive systems.Compared to a traditional course, presenting twice as many topics with twice the in-depthknowledge is a challenge that was met by following the steps listed below: • Avoiding legacy topics that waste valuable time and provide misleading impression that they may still be applicable. As an example, various arrangements in dc machines as generators are omitted. • Searching for commonality in various topologies to
standard MBA curriculum included the competencies theywere seeking to develop.12 For example, one corporate partner mentioned that the MBAwould not help the sales and marketing people better communicate with engineers andother technical staff. They wanted an engineering based degree that would provideengineers and non-engineers alike with a high level understanding of technology,enterprise systems and their integration, and the application of technical analytics toachieve high performance. Most importantly, they repeatedly stressed the need toprovide degree participants with a thorough background in enterprise innovation andmanaging innovation. This was clarified as a comprehensive view of the processes, tools,and disciplines essential to the
AC 2008-1005: EXPOSING CHEMICAL ENGINEERING STUDENTS TO REALWORLD PROBLEMS: HEALTH CARE AND RENEWABLE ENERGY SYSTEMSNichole Au, University of Maryland-Baltimore County Ms. Au is a 2008 Magna Cum Laude graduate with a BS degree in Chemical Engineering (Bioengineering Track) with a minor in History. She is also an Honors College graduate and a member of Tau Beta Pi. She has been working on the INSPIRES curriculum for the last year and will continue this work as she completes her MS degree in Chemical & Biochemical Engineering in spring 2009.Taryn Bayles, University of Maryland-Baltimore County Taryn Bayles is a Professor of the Practice of Chemical Engineering in the Chemical and
that anorientation course should also contain an element that improves the wisdom and the sense ofcreativity of a freshman engineering course.Finally engineering is a profession just like those in medical or legal fields. Television and filmshave clearly defined what such learned people do and students of such fields understand why anytopic on their curriculum helps them in becoming better professionals. Other than MacGyverthere has not been any other public visual presentation of how application of engineeringprinciples helps the everyday lives of people. An engineering student should fall in love with thefiled at the orientation course by fully learning about subjects that would lead him to have therequired skills. A typical general
integrated into the four-year curriculum is alsopresented.II. Course Structure Freshmen in the Mechanical Engineering program at WKU are currently required to take4 engineering courses. Two of the present courses are somewhat typical of introductoryengineering courses at many universities. Courses ME 101 and UC 101 are designed to fulfill Page 9.372.2university general education requirements while exposing student to the engineering field. This Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004, American Society for Engineering Educationcourse
to maintain and institutionalize its benefits; to do so, itis often necessary to seek further funding to continue work towards the full integration ofprogram components and ensure that they are sufficiently embedded in the university culture.This case study will outline how the most successful components of an NSF-fundedinterdisciplinary computing program at San Francisco State University (SFSU) - the PromotingINclusivity in Computing (PINC) program - have been expanded and strengthened throughfurther grant-funded efforts to create widespread improvements in Computer Science (CS)education at the university and discuss lessons learned from this process over the last five years.Though our experience may be unique to our university in some ways
], and numerous sustainable buildings have been built. As the advancements in technologiescontinue to grow in the construction industry, BIM will be an essential element in driving thedesign and construction concerning Sustainability [11]. Building Information Modeling is helpfulfor environmental Sustainability monitoring and management over a building life cycle [11]. BIMallows Sustainability to become a key component of the design, construction, and delivery. Itenables the corresponding decisions that affect its environmental performance to avoid costlyredesign or engineering waste [14].Building information modeling has been integrated into many AEC curriculums through the years.BIM can be used as a powerful method approach and an efficient