Course Objectives and EvolutionThe 8 credits of senior design are associated with a year long Fall-Spring sequence of courses,each carrying 4 credits. The course has core junior-level courses as prerequisites so that studentsenter with some substantive computer science fundamentals. We list below the formal courseobjectives. In the two courses, students will: 1. Learn key elements in the development of a significant year-long computer science project: planning, specification, design, analysis, and implementation. 2. Apply concepts from software engineering to the project: requirements, specification, reuse, documentation, verification and validation, testing, configuration management. 3. Learn to write about and practice
. Perform simulations using SIMULINK (a MATLAB toolbox). Reinforce principles of computer science, electrical engineering, mechanical engineering through open-ended robot design with the Basic Stamp (a micrcontroller). Engage students in problem solving via team work. Provide a brief introduction to the design process. Give students an opportunity to demonstrate oral and written communication skills through oral presentations and final project demonstrations. Proceedings of the 2009 American Society for Engineering Education Pacific Southwest Regional Conference 151 Serve as a useful
work closely with national labs and industry to maintain course projects with real ©American Society for Engineering Education, 2023 AFRL Career STREAM implementation at NMT (Work in Progress)AbstractThe New Mexico Institute of Mining and Technology (NMT) partnered with the Air ForceResearch Laboratory (AFRL) to provide a STEM experience for late-year high school students.This paper will evaluate the program in terms of implementation, results of apprentice growth,and lessons learned. The AFRL NM Career STREAM program aims to provide an industrialenvironment on a college campus, demonstrating what a career would be like, to apprenticescoming from rural New Mexico and other underserved groups. The paid
an ecosys- tem of training and support for students and to develop innovative teaching practices focused on team- and project-based learning.Dr. Ken Yasuhara, University of Washington Ken Yasuhara (he/him) is the director of the Office for the Advancement of Engineering Teaching & Learning at the UW and serves the College of Engineering as its instructional consultant. Dr. Yasuhara began working as an instructional consultant in late 2015, after several years of experience as an engi- neering education researcher at UW’s Center for Engineering Learning & Teaching.Dr. Per G. Reinhall, University of Washington Per Reinhall (he/him) is a professor and recent chair of the Mechanical Engineering Department at
AC 2008-1198: SEVERAL WAYS OF PREPARING EXPORT ENGINEERINGSTUDENTS FOR INTERNATIONAL PRACTICEKnud Holm Hansen, Copenhagen University College of Engineering Page 13.1077.1© American Society for Engineering Education, 2008 Several Ways of Preparing Export Engineering Students for International PracticeAbstractExport engineers work in many different kinds of Danish and foreign companies where theymarket projects and products with substantial contents of engineering knowledge – in a highlyinternational environment.Besides giving an overview of the study program, including objectives and structure, this paperdescribes the different ways to
which deals with the integration of the cell into the overall CIM facility. Three student research projectswere conducted using the FAC environment and this led to the implementation and integration of the hardwarein the cell. The cell was also used for several term projects in undergraduate courses in CIM and Robotics.This paper describes the synthesis between the objectives of the cell and undergraduate education at GMI. Thepaper examines the effectiveness of the learning experiences that were conceived in Phase I of the project.The results of the implementation evaluation - an activity under Phase II that was conducted to assess theeffectiveness of the project - are presented and discussedIntroduction This paper is the second one in a
Entrepreneurshipwas a prerequisite to the Engineering Service Learning course, required of first semester juniors.In the original curriculum design, students in Engineering Entrepreneurship were tasked withproviding an entrepreneurial solution for a predetermined client. The course instructors weretakes with identifying an acceptable community partner for the class. The project was thencarried into Engineering Service Learning in the following academic year. Engineering Servicelearning was designed to assist the students with the design, testing and implementation stages ofthe engineering design process.BackgroundThe FGCU mission statement includes statements regarding “valuing public service”,“encouraging civic responsibility” and a requirement of community
fundamental concernthe first in the chemical engineering curriculum, and provides in the field[7] . By immersing the students in technical writingmany students their initial exposure to calculations in the field. and providing constructive feedback in an introductory courseThis work aims at supplementing the concepts included in thisintroductory course through a simple design project that students such as this, students will be better prepared for future coursescan easily relate to. More specifically, they were asked to design involving technical writing.a water reservoir using campus buildings as a guide for itsvolume, as well as consumption data based on their personal II. P ROJECT OVERVIEWhabits. Aside
and instructional practices. The projectincludes efforts at the systems level via collaborative activities and at the faculty level viaindividual projects. The project structure is comprised of the components of collaborativeinquiry, systems thinking, and participatory action research.This Work in Progress seeks feedback from the community on ways to strategically collaboratewith faculty, chairs, administrators, and other offices on improving student retention. During thepresentation (poster session), attendees will be invited to contribute their perspectives by draftinga systems model. The community also will have access to a shared online document thatcompiles resources related to student success and retention and the materials generated
AC 2007-103: COMMUNITY DEVELOPMENT IN A GLOBAL CONTEXT: ANINTERNATIONAL SERVICE-LEARNING PROGRAMThomas Soerens, University of Arkansas Thomas Soerens is an Associate Professor of Civil Engineering at the University of Arkansas. He teaches and performs research in the areas of water quality sampling and data analysis, ground water remediation, and water and sanitation in developing countries. He serves as president of the Northwest Arkansas professional chapter of Engineers Without Borders USA and as faculty advisor for the UA student chapter of EWB. Before entering the academic world, he spent several years working on rural development projects in Pakistan and in the Maldive Islands.Charles Adams
site’sconstruction manager, and the Department of Civil and Environmental Engineering at TuftsUniversity, based on two, active, on-campus construction projects; a residence hall and a newmusic building. Active, problem-based learning was central to course delivery with access toreal-world applications of construction processes and technology readily available. The courseinstructors were CEE faculty, Linbeck personnel, and numerous guest presenters ranging fromarchitects/engineers/builders to managers of university operations and community relations. Theclassroom was on-site; a construction trailer converted into the Linbeck Learning Center.Pedagogically, this arrangement changed the course dynamics from using sites as co- or extra-curricular components in
the respective leaders, whom are responsiblefor teaching their teammates.The subject of the design project is defined in consultation with engineers from industry, whichact as external consultants for each project during the semester. The final assessment of eachproject is made by practicing engineers. Follow up and guidance are provided by the instructorand two graduate assistants. Each semester the projects are organized in a CD-ROM, whichcontains useful information, articles and patents included, such that any potential investor caneasily find relevant information. Topics studied in the last few years include lactic acid, fuelalcohol, biodiesel, and several high-added-value products from industrial waste.1. INTRODUCTIONThe Process
new capstone design projectclass - Engineering Technology Project was introduced in the Engineering TechnologyDepartment at Kent State University at Tuscarawas in the spring semester of 2011. Studentswork in groups under direct faculty supervision on creative, challenging, open-ending projectsproposed by the professor in the area of renewable energy. Practical, hands-on experience isemphasized and analytical and design skills acquired in companion courses are integrated. Theseprojects align with Ohio’s Third Frontier Fuel Cell Program commitment to accelerate thegrowth of fuel cell industry in the state, to investigate manufacturing processes and technologies,to adapt or modify existing components and systems that can reduce the cost of fuel
effective user-friendly electrical powersystems virtual laboratory. The LabVIEW class exercises are designed to concurrentlyfamiliarize the students with the use of LabVIEW and with electrical power systems.Innovative laboratory projects to design automatic motors control systems, automationpower factor correction, automatic load wire sizing, and related applications all have beencompleted by the students using LabVIEW.The electrical power systems laboratory at first uses the basics of LabVIEW and then as thecourse progresses the more advanced LabVIEW features. Students create practical designsof motor control panels and systems. Final course student project designs use LabVIEW
student teams.Details of this design project are explained. Also, an approach developed to assess thecontribution of an individual student to the project while working as a team member ispresented.IntroductionWashington State University (WSU) has four campuses. The main campus is located in easternWashington in Pullman. The newest branch campus of the university is in Vancouver WA. Thecampus serves southwest Washington and the greater Portland, Oregon, metropolitan area.In Fall 1997, the first engineering curriculum leading to the Bachelor of Science inManufacturing Engineering was introduced on the new campus. The course of study is based onthe Mechanical Engineering degree at the main campus in Pullman, but focuses onmanufacturing processes and
Session 1421 The Construction Management Delivery System An Architect’s Point of View Daniel Davis, AIA University of HartfordAbstractThere are at least three different building project delivery systems in use today. Thispaper will support the premise that the Construction Management method is the preferredapproach for many projects. Construction Management is a building project deliverysystem that uses the services of a professional manager, who in essence becomes the thirdmember of the traditional Owner/Architect team. The Construction Manager works withthe
Session 2642 ENGINEERING MANAGEMENT CONTENT FOR A SENIOR DESIGN COURSE IN MECHANICAL ENGINEERING P. B. Ravikumar Professor, Mechanical & Industrial Engineering Department University of Wisconsin, Platteville, WIABSTRACTMechanical Engineering students at UW-Platteville take the Senior Design Project Course in thefinal semester of their undergraduate program. Most of the team projects for the course, often allprojects, are provided by industry. The course is designed with the primary objective of providingstudents an experience that serves as a transition
Concord Community Development Corporation (CCDC), teamed up for an innovative undertaking in community partnership. The pilot project involved the rehabilitation of an abandoned, three-room house located near the IUPUI campus. Students enrolled in a senior level design course elected to tackle this project in lieu of the traditional “Semester-End Design Project” required in the class. This paper will describe some of the lessons learned from this pilot project and attempt to provide a blue print for the integration of similar community projects into the engineering technology curriculum.IntroductionDr. Ernest Boyer, President of the Carnegie Foundation for Advancement of Teaching, describesthe “New
Session 3553 Using Assistive Devices for the Disabled to Teach Design in a Freshman Engineering Course Dick Culver, Sharon Fellows Watson School of Engineering and Applied Science SUNY-BinghamtonAn effective freshman design project must meet several criteria: motivate students, provide aclear model of the design process, give adequate opportunity to practice the various skills beingtaught in the freshman year and fit within a limited time and financial budget. In the Design,Technology and Communications (DTeC) program at SUNY
specific, its aid in instructional and course design. The METM program curriculum offers courses that focus on Project Management,Strategic Planning and Management, Financial Resource Management, etc., that are included inthe Engineering Management Body of Knowledge (EMBOK)[3]. At the conclusion of theMETM program, students must research, design, and showcase a real-world project that requirescomprehensive application of the knowledge they have learned throughout the program, in orderto bring significant impact to the stakeholders of their chosen organizations. The Capstone course spans over two semesters, Fall (Capstone I) and Spring (CapstoneII); it was first offered in 2019, and in 2023, the fifth student cohort started their
Session 2548 Teaching Techniques in Computer-Aided Design Jianping Yue Department of Engineering Technology & Computer Science Essex County College Newark, New JerseyAbstractThis paper discusses common concerns about and various techniques for the teaching ofComputer-Aided Design (CAD). One of the concerns raised will be related to how engineeringtechnology students can acquire the necessary CAD skills for use in their design projects. Alsodiscussed will be the relative advantages of different approaches, such as having
Paper ID #11056The Development and Integration of Humanitarian Engineering Curriculumin an Engineering Technology ProgramMr. Aaron Brown, Metropolitan State University of Denver Aaron Brown is Assistant Professor of Mechanical Engineering Technology and Coordinator at Metropoli- tan State University of Denver. His education includes: B.S., California State University-Chico; M.S., University of Colorado-Boulder; PhD Candidate Civil Systems Engineering; University of Colorado at Boulder Professor Brown’s background includes aerospace industry work. Among his notable project contri- butions were design work on the
Paper ID #44876Authentic Engineering Experience: An Electromagnetic Induction PoweredIlluminated Fine Art SculptureMs. Aashitha Srinivas, Raritan Valley Community College I’m currently a sophomore at a Community College, working towards a degree in mechanical engineering.Thomas Gerard Hayes, Raritan Valley Community College I was apart of the first group to began working on the Electromagnetic Induction Powered Illuminated Fine Art Sculpture. Through many long hours, countless fails, and many small victories along the way, our project has evolved into a successful product with a happy client. I have taken many classes at
Paper ID #7895Programming Printers Printed by 3D PrintersProf. Gavin T. Garner, University of Virginia Gavin Garner holds a bachelor’s degree in Physics from Colby College and Master’s and Ph.D. degrees in Mechanical and Aerospace Engineering from the University of Virginia. His primary area of expertise lies in the burgeoning field of mechatronics (aka robotics). Over the past decade, he has built UVA’s mechatronics program from scratch, developing over 50 hours of unique laboratory experiments as well as dozens of open-ended design projects. Through this experience, he has gained valuable insight into how to engage
discrete-time convolution, difference equations, discrete Fourier transform,Z-transform, filter designs, impulse, and frequency responses of discrete-time systems. Toimprove students’ skills in practical signal processing techniques and application, a new graduatecourse, EE887D Signal Processing Applications and Techniques, was offered in fall 2012. Bothcourses integrate practical projects using real-world data, thus providing students the opportunityto work on real signal processing techniques via Matlab programming. In this paper, we presentan overview of these projects.1. IntroductionSignal processing finds numerous applications in event detections, signal separations, parameterpredictions, and estimations in various systems. At Wichita
Engineering (COE) launched its ten-weeksummer program entitled “College of Engineering Enhancement Institute (CEEI)” in 2009aiming at lifting incoming freshmen to a higher math and science level before their first semester.Each program in the COE participated to introduce their individual curriculum through hands-onprojects designed by faculty members. Computer Engineering and Computer EngineeringTechnology programs collaborated and designed two multimedia projects. This papersummarizes the successful experience to share with peer educators.The fast growth in computer technology has changed our daily lives dramatically during the pastdecade. The new generation of students is developing with the fascinating multimediaenvironment such as video games
disciplines. She enjoys observing the intellectual and professional growth in students as they prepare for engineering careers. American c Society for Engineering Education, 2021High school students' perspective of project-based learning in online learning Olushola Emiola-Owolabi, Medha Dalal, Adam Carberry, & Oluwakemi Jumoke Ladeji-OsiasThe delivery mode of education for many high school students changed recently, confining students toattend classes virtually from home. Remote learning can sometimes give students fewer experientiallearning opportunities. A focus group discussion was carried out with 35 high school students to exploretheir perception of their learning
course to generate sufficient intellectual excitementto overcome senioritis and be the bridge between baccalaureate education and the ‘real world’.In the authors’ opinion the capstone course is not the culmination of the undergraduateexperience; it is the first pre-licensure experience. Through this process the authors hope that thestudents will reach the sublime state of Civil Engineering Enlightenment-- that ‘Ah-hah’ momentwhen an individual stops thinking and acting like a student and starts thinking and acting like apracticing engineer.Background The ‘perfect capstone project’ is the Holy Grail for many engineering programs.Educators continually seek it and seldom find it, but, when we do, it provides a phenomenalexperience for both
ongoing work related to integrating socialjustice content into technical courses in mechanical engineering. Understanding of social justiceissues and the ability to engage in sociotechnical thinking are vital aspects of engineers' skill setsin the 21st century, but many engineering programs present content in ways that obscure orminimize these critical links. It is well-understood that student motivation is critical forengagement and learning to take place in the classroom. In our case, achieving participation andengagement in discussions and projects related to social justice requires motivated action on thepart of both students and faculty. Without understanding the specific elements that support orinhibit student motivation to engage with
Paper ID #20374Student Paper: Small Team Agile Systems Engineering For Rapid Prototyp-ing of Robotic SystemsMr. Charles Avery Noren, Texas A&M University Vehicle Systems & Control Laboratory Charles Noren is an undergraduate research assistant at the Texas A&M University Vehicle Systems & Control Laboratory and task leader for the rail-based robotic system project. He is expected to graduate with a Bachelor of Science in Aerospace Engineering in May of 2018, and plans to continue his education at Texas A&M University with a Master of Science in Aerospace Engineering.Kendra Lynne Andersen, Texas A&M