averages for engineering. Opportunities such as these are wonderful, but thereare vast opportunities available within one’s own community as well. At the University ofCincinnati, a course was piloted with a group of honors students based on the EngineeringProjects in Community Service (EPICS) framework to allow vertically integrated andmultidisciplinary student teams to work on projects to aid the residents and staff of a local,inpatient facility catering to individuals with debilitating neurological diseases. The class wasopen to any student in the university’s honors program, and drew students from engineering, artand design, and the sciences.In this paper, a description of the curricular structure and the student projects are presented
-recipient the NEA’s Bernard M. Gordon Prize for Innovation in Engineering and Technology Education, the Campus Compact Thomas Ehrlich Faculty Award for Service-Learning; the NSPE’s Educational Excellence Award.Steve Chenoweth, Rose Hulman Institute Of Technology Steve Chenoweth is an Associate Professor in the Department of Computer Science and Software Engineering at Rose-Hulman Institute of Technology. His principle areas of work relate to the design of complex systems and also these systems’ associated people concerns – such as how to get all the stakeholders in a large project to understand each another and the system being proposed. He was a visiting Fellow for EPICS in 2009-2010
Successfully Building Bridges Between Education and Engineering Programs at a 4-year Comprehensive University Jason Thrun and Philip Parker University of Wisconsin-PlattevilleAbstractSix faculty members (three from engineering, one from mathematics, and two from education)teamed up to plan and implement an innovative project. During the fall semester of 2004, ninepre-service teachers in secondary- and middle-level mathematics education enrolled in anexperimental section of GE 1030 – Introduction to Engineering Projects, an existing 1-credithour class that is required for all engineering majors, and is typically taken in the freshman year.The project
Web-Network Technology Curriculum Development for Computer Science Jeannette G. Neal, Ph.D. Peter Scott, Ph.D. Computer Science Department Department of Computer Science and Engineering Erie Community College University at Buffalo Williamsville, NY 14221 Buffalo, NY 14260 neal@ecc.edu peter@cse.buffalo.edu ASEE Conference Division: Two Year College Division AbstractThis paper describes our National Science Foundation (NSF) Advanced Technology Education(ATE) project entitled “Web-Network Technology Curriculum Development for ComputerScience”, the new Web-Network
served as Principal Investigator (PI) for several National Science Foundation (NSF) projects and a National Institute of Justice grant. She is currently PI of the CalWomenTech Project, a $2 million NSF grant awarded in April 2006. Through this five-year grant, eight California community colleges have received training and technical assistance to help recruit and retain women into technology programs where they are under-represented. The Project was highlighted by NSF in 2009 for demonstrat- ing significant achievement and program effectiveness. Page 22.1555.1 c American Society for
Dimensioning and Tolerancing over the course of their first two years. Whilethese courses present information that is critical to the design process, the material is presented ina discontinuous method relying on a “you will need to use this later” justification. In addition,these courses are spread out over quarters 1, 2, and 6 in the course sequence, with no actualapplication to a comprehensive design project until the 11th quarter when they take SeniorDesign. By teaching the same material integrated with a project, students will immediately seethe value of what they are learning, and will have more motivation to retain that knowledge.Since it is impossible to condense 3 quarters of existing course material into two, in addition toadding new material
) how the engineering design process is enacted in the course and(2) how fabricating physical artifacts relates to course learning outcomes in design and analysis.In this work, we conduct an extensive review of undergraduate mechanical engineering curriculaacross several institutions to understand students’ design and analysis backgrounds prior totaking upper-division mechanical design courses. We also develop two survey instrumentsfocused on project-based learning within mechanical design courses. The first survey focuses onhow the design process is enacted by students during their projects. The second survey examineshow students make fabrication decisions to support their project work.A pilot study using both instruments was performed with
. Results indicate that studentsdevelop several skills through CEL work related to the Engineers Canada Graduate Attributes.All students indicated some challenges in their work. Students engaged with resources includingpast group members, faculty and transition documents, though no students indicated engagementwith the campus’ Centre for Community Engaged Learning (CCEL). COVID-19 presentedlogistical challenges and lessened engagement from both group members and communitypartners. This study showcases the value of CEL projects for student development as well asopportunities for further supporting students in seeking these opportunities.KeywordsCommunity engaged learning, co-curricular, experiential learningIntroductionCommunity engaged learning
the course attracts students from all disciplines within theCollege of Engineering, it is challenging to teach given the variety of backgrounds, specific skillsand knowledge, and perspectives. Analysis of course assessment data and revision to the coursecontent and teaching methods are part of an on-going effort to improve this course. The Green Engineering course has lectures which present background material on the keyenvironmental and energy issues facing society. To differentiate this course from one inenvironmental science, an engineering analysis component is included with the assignment offour mini-projects which are completed by teams of not more than four students. The projectsare: 1) biomass logistics, a project to document
facilities (MOSIS); 3) has students conduct Page 1.50.1 1996 ASEE Annual Conference Proceedingsmeasurements on fabricated chips; 4) lets students work in teams that must work together for project success;and 5) provides numerous situations to develop student communication skills in written, verbal and e-mail form.Under this format, students play the role of new employees of a company instead of students at a university.They are assigned to a team and a project, hold meetings to discuss plans of action, and communicate with theirco-workers and boss through e-mail, while learning more about what their
Technological University Geoff Gwaltney is a Senior Research Engineer at the Keweenaw Research Center at Michigan Techological University. Geoff has worked closely with the AFE Enterprise.Scott Bradley, Michigan Technological University Scott Bradley is a Project Manager and Research Leader at the Keweenaw Research Center at Michigan Techological University. Scott has worked closely with the AFE Enterprise. Page 11.552.1© American Society for Engineering Education, 2006 Engineering Education in Alternative EnergyAbstractThis paper describes education and research efforts in alternative energy at
traditionalclassroom-based structure-oriented strategies. As the course balanced advanced reading,lectures, fieldwork, and exercises, students applied their practical background knowledge,based on international and multidisciplinary experiences, with an understanding of relevantand domain-specific theory and tools. In terms of international and multidisciplinaryexperiences, students were under the guidance and received the support of professionals frommultiple fields, including engineering, education, and design and from a multitude ofbackgrounds, including academia, industry, and government. In terms of domain-specifictheory and tools, the projects were based on a graduate level lowland flooding course whichincluded students from a variety of cultural
project is a feasibility study anddesign for the installation of threeNLine Microsteam™ turbines(MSTs) in the University of Idaho’scampus steam power plant. Asshown in Figure 1, there are threenatural gas boilers as well as oneprimary wood boiler that produce thesteam. Natural gas is the backupenergy source, used only inemergencies. Wood chips, acompletely renewable local resource,is the primary energy source. Thesteam exits the boilers at a pressureof about 170 psi and feeds into acommon manifold. The pressure isthen reduced to 35 psi for campusdistribution by three pressureregulating valves (PRVs) connectedin parallel. This pressure reductionmethod wastes a great deal ofenergy. In the present topology, thereis no way of capturing the energy
Mechanical Engineering have been assigned along-term, large-scale design/build project in order to study the effects of integrating thecurriculum on subject matter retention and design efficacy. The project, a bench-scale hybridelectric powertrain system, is designed, analyzed and fabricated by students in six modules,starting in their sophomore year and culminating in their final semester as seniors. This complexproject has been selected in order to integrate the core mechanical engineering courses:Mechanical Design, Thermodynamics, System Dynamics and Control, and Fluid Mechanics. Abench-scale hybrid-electric vehicle powertrain has sufficient complexity to involve allMechanical Engineering disciplines and the simplicity to be built by students
working to find new contexts in which to offer research experiences to non-science majors, including a new undergraduate research class conducted by physics andchemistry faculty. These courses are inherently interdisciplinary. Students in the engineering andcomputer science fields step into physics and chemistry labs to solve science problems, ofteninvoking their own relevant expertise. In this paper we start by discussing the common themesand outcomes of the course. We then discuss three particular projects that were conducted withengineering students and focus on how the undergraduate research experience enhanced theiralready rigorous engineering curriculum.KeywordsUndergraduate research, Physics Education, Laboratory Instruction
Paper ID #29699Hands-on Engineering Experience, a Liberal Arts CaseDr. Niloofar Kamran, Cornell CollegeMr. Qingbao Wang, Cornell CollegeMr. Andy GroveWilliam Nitschke Dragon II, Cornell College c American Society for Engineering Education, 2020 Hands-on Engineering Experience, a Liberal Arts Case Will Dragon, Qingbao Wang, Andy Grove, Niloofar KamranAbstractOur project was a part of the 2019 Cornell College Summer Research Institute (CSRI), whereCornell College students and faculty work in close collaboration on a research project for eightweeks during summer. The program includes one faculty
Page 11.729.3 2out and properly implemented instructional strategy. Our experience in service learning revealsthat service learning by its nature can provide authentic learning experience. * Authentic learning strategy invariably involves the learners in activities that deal with a real-life problem. * Service learning involves real people in real time, and therefore, it contains certain elements of drama and dilemma, just like in real world. * In service learning projects, content knowledge usually is embedded in the situation in which it is used. * In service learning, students are not usually given engineering specifications to start with (as opposed to class projects
Paper ID #97213D Design: Form and LightMs. Mary Ann Frank, Indiana University Purdue University, Indianapolis Senior Lecturer, Interior DesignBeth Huffman, Indiana University Purdue University, Indianapolis Beth Huffman is a lecturer at Indiana University Purdue University Indianapolis (IUPUI) in the interior design department. She is a licensed architect with specialties in sustainability and construction. Beth’s classroom pedagogy is focused on the practices of design/ build. She often encourages students to build a portion of their projects at full scale, in order to understand construction connections and
, free online learning environment that supports studentsthrough engineering design projects designed to improve science, technology, engineering, andmath (STEM) learning in middle and high school classes. WISEngineering builds from aninformed engineering design pedagogy, knowledge integration learning framework and the open-source Web-based Inquiry Science Environment technologies. WISEngineering uses engineeringdesign modules to facilitate engineering habits of mind such as systems thinking, creativity,optimism, collaboration as well as standard-based mathematics and science concepts. In thesemodules, students use CAD technologies and digital fabrication to create, build, and refine theirdesigns. The environment leverages technologies such as
includes project based learning, integrating entrepreneur- ship thinking in engineering curriculum, engineering education for women, and improving students’ en- gagement through engineering minors. She has served as PI or Co-PI in granted projects from DOEd, DHS, NRC, and HP with totally more than $3M. She also conducts research in wind energy, sustainable manufacturing, and optimization and simulation. Page 24.758.1 c American Society for Engineering Education, 2014 Innovative STEM-Preneur Learning Modules for Freshman Robotic Engineering Class1
Kentucky. The program graduated the first cohort of students in the SpringSemester of the 2003-04 academic year. The paper briefly discusses how the program wasdeveloped in the context of ABET’s EC2000, how it compares to ASCE’s BOK, and theperformance of students. In particular, the authors explore to what degree the joint program atWKU accomplishes the major objectives of ASCE’s BOK in a project-based, 4-year program.Program Background1,2The joint engineering programs at Western Kentucky University (WKU) utilize project-orientedcourse delivery with emphasis placed on student engagement. Courses are facilitated by facultywho practice engineering via the scholarship of application. Student involvement follows theeducational paradigm of learner
Session 3438 Hands-On Graphics Communications – Designing Commercial Properties in an Introductory Course: Innovative Teaching Strategies for Success David S. Cottrell Pennsylvania State University at HarrisburgIntroduction This paper describes the integration of design projects during the Fall Semester, 2004,into the curriculum of an introductory graphics communications course at Penn StateUniversity at Harrisburg. These projects served a double purpose of reinforcing topicstaught in the classroom as well as introducing students to the engineering design
capstone classes for the last three years in theDepartment of Mechanical Engineering at Lamar University. The paper presented difficultiesand problems encountered in completing these projects from the viewpoints of both instructorand students. Each project and the problems associated with it were discussed in details. Theexperiences and lessons learned from these projects are applicable to most capstone designprojects and thus, the paper will be beneficial to other instructors teaching capstone designclasses.Introduction Senior capstone design classes represent the penultimate experience for undergraduatestudents in completing their bachelor degree. These classes require higher learning skillsinvolving analysis and synthesis of knowledge and
Is It Senior Design or a High Tech Start-Up? Ken Ports Florida Institute of TechnologyAbstractThe Senior Design course taken near the end of an engineer’s undergraduate tenure isincreasingly recognized as a “capstone” activity, enabling these future professionals to applytheir collegiate education and experience in a team environment to solving real world problemsor to creating new capabilities. Ideally, Senior Design teams are also cross-functional, tobroaden the projects and better replicate the professional world. In addition, there is a growinginterest in linking Senior Design with entrepreneurial activities, even to the point ofcommercializing
DISTRIBUTED DESIGN IN THE ELECTRICAL ENGINEERING DEPARTMENT AT THE UNIVERSITY OF WISCONSIN – PLATTEVILLE Mesut Muslu Electrical Engineering Department University of Wisconsin – PlattevilleAbstractA variety of processes and methods exist to teach engineering design in universities today.Although some programs introduce simple design projects in freshman year, many programsprovide design experience through a few concentrated courses in junior or senior year. Manystudents report that design methods are typically taught in high-level courses and in acompartmentalized fashion. In such cases
where 10-13 teams of 10 undergraduate students each work on independent projectsannually posed by sponsors such as researchers, clinicians and individuals in need. The designprojects culminate in a prototype and final report. About ¼ to ½ of these projects have potentialfor commercial application. In entrepreneurship and management, a program exists where teamsof between three and five undergraduate students develop business plans for ideas that areproposed to them by biomedical engineering students. Business plans for projects withcommercial potential examine factors necessary to convert the project idea into a viableenterprise. Such issues include market size, revenue and reimbursement, market penetrationstrategies, costs of operations, legal
mission. The Engineering Physics curriculum at Murray State University was recently accredited by EAC/ABET as an engineering program. In response to recommendations from the program evaluators, efforts have been made to successfully integrate engineering design experiences throughout the four-year curriculum. Even those courses typically considered basic science or engineering science now contain problems, projects, and assignments which deal with elements of engineering design. As students acquire knowledge and skills in basic coursework, they are asked to incorporate engineering standards and realistic design considerations in increasingly advanced assignments. This paper will describe the Engineering Physics
use softwaresimulation as a tool. Students are now introduced to design, the use of software simulation,formal report writing, and peer evaluation through this project at the beginning of their collegecareer. --------------------------------------------------------The introduction to circuit analysis (“Electrical Circuits I” - EET 102) course at the PurdueUniversity Electrical Engineering Technology Department at Indiana University PurdueUniversity Indianapolis is structured with a lecture section and a laboratory section like manysimilar courses nationwide. The laboratory section of Circuits I was structured with 16 weeklylaboratory assignments, performed by student teams typically consisting of two to three
. Susan Montgomery and co-workers in the MultimediaEngineering Laboratory (MEL) at the University of Michigan.There are several unique aspects to the project which separate it from routinecourse work, while providing a solid grounding in material balances and problemsolving. The students are divided into groups of three "project engineers" andare assigned to a "group leader", who is typically a junior or senior chemicalengineering student (Note: The upper division students participate in a 1 cr.Leadership and Mentoring course which is described in paper 2213-03). The "chainof command" that is established is similar to that the students will encounterin industry, with the instructor as the "project director", the upper divisionstudent as the
AC 2011-1388: OAKLAND UNIVERSITY/ALTAIR ENGINEERING TECH-NICAL BUSINESS INTELLIGENCE CORPORATE INTERNSHIP PRO-GRAMDavid W Schmueser, Altair Engineering Inc. Dr. David Schmueser is the Business Development Manager of University Programs in the United States for Altair Engineering, with primary responsibility for identifying and implementing Altair’s advanced engineering software and grid computing technologies for curriculum and research applications. With more than 30 years of experience in engineering research, project technical management, and en- gineering instruction, Schmueser’s strategic role at Altair focuses on the development and execution of Altair’s university marketing and sales plan, fellowship program