industry today in mind. Theseroles are examined in detail in order to formulate appropriate course objectives. The course istaught in a computer lab setting. Students will gain hands on experience with a commerciallyavailable finite element analysis software package. The primary evaluation tool to assess ifstudents are meeting the objectives of the course are reports submitted detailing the analysisundertaken in sample projects assigned in class. The reports are written in a format usedsuccessfully in industry.IntroductionIn its report recommending six-year accreditation for the mechanical engineering technologyprogram at Buffalo State College in 1998, TAC-ABET cited as a weakness the lack of technicalelectives offered within the program. In order
consolidate the written and graphic information into a coherent whole,Only then can the project be reviewed for compliance with the client’s needs and the buildingofficial’s requirements and, the ultimate goal, be built.As the profession engages the use of software in ever increasing ways we must be certain thatstudents are not left behind. Applications routinely used by architects in practice include: Page 3.496.1 • Word Processing • Spreadsheets • Scheduling • Presentation • Computer Aided Documentation (CAD) • DatabasePart I: Professional Practice
developed to introduce students to hands-onskills that could be important for BME students in design and their future careers.The BME “Cube of Knowledge” is a design and prototyping project where six design teamswork together to create a six-sided cube. Each team first develops a CAD model, rapidprototype, and engineering drawings for one side of the six-sided cube. After the creation ofengineering drawings, each team fabricates their individual side of the cube with a conventionalmilling machine based on the engineering drawings. After each team has manufactured theirown part, the six individual parts are assembled in class. A successful design and manufacturingexperience would predicate that the six parts, or “sides,” combine to create an
mixed results. Projects were assigned but with only part of theone credit available, it was difficult to find enough time to meet the needs of the community andto accomplish something significant from the students’ viewpoint. These factors createdfrustration on both the students and the community partners. These trials did, however, providevaluable experience to gauge the capabilities of the first year students and allow the instructionalteam to develop materials to support the service-learning projects. These experiences reinforcedthe fact that reflection was imperative to help students process their experiences in thecommunity. These experiences also showed that the seminar format was an excellentenvironment for these reflection discussions
Session xxxx Introducing Design Process in Engineering, Engineering Technology Som Chattopadhyay Department of Industry and Technology Ball State University Muncie, IN 47306IntroductionAn innovative set of projects introduced in a regional campus of a state university (withwhich the author was affiliated prior to his current position) forms the basis of this paper.Indiana University – Purdue University Fort Wayne (IPFW) is the sixth largest publicuniversity in Indiana with an enrollment of 12,000 students. Typically a commutercampus
an opportunity to apply a three-year comprehensive set of “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education”skills and concepts learned in the classroom to an industry related project. Academic liaisonswork with Department of Defense (DoD) and industry to develop problem topics of relevance tothe Army and the Academy, while ensuring projects are scoped to capabilities of project teams.Civilian industry organizations qualify to participate if they service the military in one or more ofthe following five domains: 1) Organizing the force, 2) Manning the force, 3) Training the force,4) Equipping the force
. Page 23.941.1 c American Society for Engineering Education, 2013 On Teaching Capstone Design: The Role of Practitioners in the ClassroomAbstract: Teaching civil engineering design through senior projects or capstone design courses,with industry involvement and support, has increased in recent years. The general trend towardincreasing the design component in engineering curricula is part of an effort to better preparegraduates for engineering practice. While some design projects are still of the “made up” typecarried out by individual students, the vast majority of projects today deal with “real-worldproblems” and are usually conducted by student teams. The paper begins first
serves as the Faculty Lead of the Humanitarian Engineering Program at The Ohio State University. In this role, he leads high-impact experiential learning programs, conducts engineering education research, and instructs courses related to Engineering for Sustainable Development. He is passionate about developing engineers’ sociotechnical competency to prepare them to address complex global sustainability challengesDr. Kristen Conroy, The Ohio State University Dr. Kristen Conroy has a PhD in Biological Engineering from Ohio State University. Her main area of focus is sanitation. She has worked with partner organization, UNiTED, to teach courses where engineering students focus on collaborative projects in Kpando, Ghana
upon completing the two-semester capstone sequence. Next, the instructors identifiedlearning outcomes, which describe what the students would be expected to know or formally do.This effort was followed by identifying assessment techniques and filling in the course's content.Key aspects of the design mindset which were infused in this new course included: beinginquisitive and open, being empathetic to others’ needs, being accepting of ambiguity,questioning critically, and a proclivity to taking purposeful action.The two instructors involved in this redesign both have experience in the industry of productdesign and development, and aimed to structure the course and project path to reflect many ofthe practices that designers and engineers might
ENHANCEMENT OF MECHANICAL ENGINEERINGSTUDENT MOTIVATION, LEARNING, AND LEADERSHIP THROUGH AUTO RACING INTERESTS INVOLVING MULTIPLE COURSES Ralph I. Stephens PhD, PE Professor, Mechanical and Industrial Engineering The University of Iowa, Iowa City, IA 52240 ralph-stephens@uiowa.eduAbstractDue to student interest in auto racing, projects with racing were incorporated into fivemechanical engineering courses involving five faculty members, nine student projects and abouttwenty students. The racing projects provided outstanding student achievements along withhaving fun.IntroductionWhile teaching a senior 58:055 Mechanical Systems Design class
solving real-world problems. He directs the operations of the Institute-wide Georgia Tech Capstone Design Expo, which highlights projects created by over 2000 Georgia Tech seniors graduating students on an annual basis. He serves as the faculty advisor for the student organization of over 100 student volunteers who all train, staff, and manage the operations of Georgia Tech’s Flowers Invention Studio – one of the nation’s premier volunteer student-run makerspace, open to all of the Georgia Tech community. Dr. Jariwala’s research interests are in the field of makerspaces, evidence-based design education, and advanced additive manufacturing process. During his Ph.D. studies, he was also a participant of the
Paper ID #36877Preparing Students for Construction ManagementTechnology CurriculumKirk Hochstatter PhD Candidate in the University of Washington's College of Built Environments, researching shared leadership, integrated project delivery (IPD) and collaborative governance, virtual teams and building information modeling (BIM). Has been teaching in the UW construction management department since 2017, and developed the digital tools in construction management course. Has worked in the construction industry for over 20 years and delivered several projects throughout the San Francisco Bay Area and the Seattle/Puget
. Jaksic’s interests include robotics, automation, and nanotechnology engineering education and research. He is a licensed PE in the State of Colorado, a member of ASEE, a senior member of IEEE, and a senior member of SME. American c Society for Engineering Education, 2021 HORIZONTAL PROPULSION USING MODEL ROCKET ENGINES (PART A)AbstractTo provide first year engineering students with hands-on experiences and teach them theapplications of both dynamics and other physics laws, this team project uses wooden derbyvehicles (coupe, truck, and bus) that are propelled horizontally with various grades of model rocketengines. The vehicles are hooked onto and guided by a (1/16
/verification,manufacturability analysis, and the manufacturing design of the product. This course has beencontinuously updated to offer the latest tools, software, and teaching and evaluation techniques.Students are assigned to teams based on their learning style, technical and academic background,and schedule. Students must complete an industry-supported project. In this course, students areevaluated both individually through performance on homework, quizzes, and exams; and also asteam members on the basis of a design and prototype review, final report, presentation, peerevaluation, and comments by a panel of experts. Course assessment is based upon a variety ofsurveys and feedback mechanisms. This paper describes several of this year’s projects
free developmenttools now allow each student to have access to state of the art development tools and hardware.Students must be provided access to these industry leading tools to be competent and competitivein the marketplace.A study to be conducted at Washington State University will measure changes in studentperformance and retention when first year engineering students have exposure and unlimitedaccess to state of the art development tools and hardware. Data will be collected from surveys,exams, project reports, laboratory assignments, and homework.Quantitative data will be analyzed by comparison to historical data gathered from studentgroups that did not have exposure to and unlimited access to development tools.Qualitative data will be
leadershipskills. The younger students are integrated into real engineering projects earlier in their careersgiving them a genuine engineering experience that serves to address retention challenges facingmany engineering programs. A challenge, however, is creating projects that both challenge theolder students and allow the younger students to participate. At Purdue University, verticallyintegrated teams are brought together to address the needs identified in the local community.LabVIEW tools are utilized to allow the younger students to get up to speed on the projects andparticipate in areas such as data acquisition, data analysis, and microcontroller programming.This paper describes how the vertically integrated teams are formed, provides an overview of
to the uncertain andstochastic nature of, as examples, project cash flows and interest rates. Unfortunately, this traditional approachdoes not provide students with the skills to deal with real world situations, which inherently involve uncertaintyand thereby, risk. Typically, most Engineering Economy texts for undergraduate students deal with uncertaintyand risk only in brief chapters, usually at the end of the book. The uncertain environment is introduced as aspecial case, rather than as the norm. In this paper, we propose an approach to learning Engineering Economythat is characterized by treatment of uncertainty and is motivated by risk; in fact, it considers the deterministiccase as a special case. The availability of computers today
over three semesters, as opposed to thecollege’s traditional two-semester curriculum. The integrated approach used collaborationbetween one semester of Engineering Design Methods (EDM) and two-semesters of the SeniorDesign Project (SDP). The integrated approach, modeled on the engineering design spine withroots in freshman courses, involved both the EDM and SDP cohorts. The interclass involvementincludes participation in design review presentations, senior-to-junior mentorship, and multiclassworkshops. Student feedback through periodic surveys and interviews provided insight into thestudents’ progress and learning outcomes. This paper reports on efforts that would help anintegrated Capstone Design curriculum succeed. The Department’s surveys
an essential part of the testingprocess because the standard specimens ensure meaningful and reproducible results.1 Tohelp improve students’ critical thinking, hands-on experience, and potential researchinterest, an enhanced tensile testing laboratory project was developed that accounts forspecimen condition and variability.MET students at two campuses of XXXXX University participated in this enhancedpolymer tensile testing laboratory project. Campus A is a commuter campus with abalanced population mix of traditional and non-traditional students and typicalengineering technology class sizes of 10-20. Campus B is a large residential campuspopulated by traditional students, transfer students, and a handful of non-traditionalstudents. At Campus
Academy seeks to educate and inspire their civil engineering studentsthrough a rigorous and realistic academic program. One of the cornerstone courses in theprogram is a Construction Management Course that incorporates a variety of hands-on, real-world, learning challenges. The objective of the first third of the course is for the students togain a foundational understanding of the basics of construction management to include projectbidding, contract mechanisms, scheduling, estimating, and project controls. The topics arepresented in a traditional classroom environment. The students are then challenged in the nextthird of the course to apply those construction management skills in a hands-on constructionsimulation exercise identified as the
Using 3D Printing and Physical Testing to Make Finite- Element Analysis More Real in a Computer-Aided Simulation and Design CourseAbstractThe mechanical engineering curriculum at Loyola University Maryland includes a junior-levelcourse in computer-aided simulation and design (EG426). In this course, students useSolidWorks® to create computer models of three-dimensional parts and assemblies and learnhow to generate engineering-quality design drawings. The class also covers the use of finite-element analysis (FEA) to evaluate stresses and deflections of parts under load. Ultimately, thecourse culminates in a professional project where each student designs a mechanical part to meeta set of specific
Society for Engineering Education, 2015 Peace, Conflict, and Sustainability: Addressing Global and Ethical Issues in Engineering EducationEngineers play central design and policy roles globally in infrastructure and construction projects-- in transportation, power generation, irrigation, mining and other sectors. Particularly indeveloping countries, this may thrust them into violent conflict situations arising fromgeopolitical disputes, rival claims over resources, unequal distribution of benefits and costs, orpower struggles. Conflicts among communities, peoples, and nations can arise from manycauses. Engineering programs and projects may themselves be among the problems at issue.Where efforts to bring about peaceful
. Thoughundergraduate research is identified by the Association of American Colleges and Universities as ahigh-impact educational practice, it is not commonly encouraged or pursued within engineeringtechnology programs (as compared to engineering programs) predominantly due to the hands-on andexperiential nature of the curriculum. This paper will outline and compare the different types ofundergraduate research activities pursued by various students within this engineering technologyprogram; these include single and multi-semester individual and group research projects, acceleratedprojects over summer sessions with and without university-level schedules/organization, projectshaving participants from multiple departments, research as part of honors theses
andadditional open-ended analysis of student interview data was completed.Initial research on students in Fellows’ classes demonstrated that the Engineering Fellowstudents made statistically significant gains in their understandings of engineering whenmeasured annually pre to post. These students were more likely to portray an engineer asa designer, to better understand engineering processes, the diversity of fields representedby the term engineering and the work typically done within engineering fields.To capture the long-term influence of interaction with a Fellow, similar follow-up data Page 11.846.2were collected from a subset of project students and a
. She is currently working on a Doctor of Science in Information Systems and Communication degree with an expected completion time of May 2007. For six years (1999-2005), she was the Director of International Exchange Programs where she helped to expand both study abroad programs and faculty experiences. As a long-standing faculty member at Robert Morris University, Ms. Jones emphasizes practical application, frequently conducting class projects involving outside businesses.Jon Radermacher, Robert Morris University Jon Radermacher is a professional artist who joined the Robert Morris University faculty in August, 2005. He is currently an Assistant Professor in the Media Arts
Session 1658 Putting Information Retrieval Theory into Practice – A Web Search Engine Project for an Undergraduate Computer Science Elective Course Xiannong Meng Computer Science Department Bucknell University Lewisburg, PA 17837 Abstract This paper describes a semester project for an undergraduate computer science senior elective course, CSCI 379 Computer Science Topics – Information Retrieval and Web Search, taught at Bucknell
societal context ofengineering and a passion for life-long learning. This will be achieved by guiding studentsthrough new educational opportunities to: • build disciplinary excellence with multidisciplinary perspective, • nurture critical thinking, • develop multicultural competence, • cultivate collaboration and leadership skills, and • promote an ethic of service to the profession and the communityTo provide the necessary incentives and mechanisms for change, to-date the College has heldthree internal solicitations for proposals to transform undergraduate education providing facultyand staff with modest grants for release time and other resources. A total of 26 projects havebeen funded. The purpose of this paper is to describe our
researchtraining program in geophysics at North Carolina A&T State University. Being an extremelybroad and important field of science, geophysics entails the study and exploration of the earthand its atmosphere and waters by means of physical measurements, and requires its practitionersto utilize a combination of mathematics, physics, geology, and computer science to analyze thesemeasurements to infer properties and processes of the complex earth system. By its nature ofinterdisciplinarity, geophysics makes research and development projects ideal for education andresearch training of science, technology, engineering, and mathematics (STEM) students.Education and training have become lifelong pursuits for our workforce, as new jobs requiringnew skills
initiatives in introducing an interdisciplinary environment in a yearthree computer systems design course, as well as how the teaching of design skills is achieved.For the past two years third year computer systems students worked together with a fine artselective group of year two to Masters students, in the final project of a full year design course.The experience gained from both sides is discussed and this new initiative is compared to otherapproaches in other Universities around the world and inside the Faculty of Engineering at theUniversity of Auckland. The history of the design courses in the Department of Electrical andComputer Engineering and the School of Fine Arts is reviewed and the current course structureis examined. Results are
the coursedesign project, or an introduction to one of the software packages the students will use in theirupper-level coursework.In this paper, we will present the content of the laboratory modules, andexplain how the laboratory experiences are incorporated into the pedagogy of the course. Thesmall-group design project, a central part of the course, requires students to develop andimplement a mechatronics-based design project that they propose, utilizing the knowledge, skillsgained during the laboratory sessions as well as engineering processes.A primary aim of thedesign project and laboratory experience is to introduces students, in the early stages of theirengineering education, to a subset of the general ABET student outcome criteria