might add more information of different types of welds, what is a poor weld etc. – Nothing • Juniors – Attend more events like this one – Make more stuff – Feel more confident in future machining work • Seniors – Use some of these techniques in future course projects and my thesis or senior capstone class – Better understand how machining works – I am more comfortable with the machines. They are much less intimidating, and I am less afraid to make mistakes.Do you have any suggestions for how we could make this event more useful? • Freshman and Sophomores – This was a pretty good event, I learned something I didn’t know anything about and was good at it and
Paper ID #31377Creating a Makerspace for Cross-disciplinary Teaching and Collaborationwith Limited FundingDr. David G Alexander, California State University, Chico Dr. Alexander’s research interests and areas of expertise are in teaching pedagogy, capstone design, renewable energy systems, thermal sciences, vehicle system modeling and simulation, heat transfer, new product development, entrepreneurship, and technology transfer. He is PI and adviser of the Department of Energy Collegiate Wind Competition 2016. He is also working on an undergraduate research project modeling solar cells using a thermodynamics approach and
the optimal tolerances of manufactured parts using the assemblyand quality control station, (3) utilizing the entire flexible manufacturing cell to meet due datedemands of customer orders, or (4) studying repeatability and accuracy issues while utilizing theHP3 robot. In addition, the IRAM Laboratory will enable additional topic areas to be researchedand presented for final capstone senior design projects. From those projects, more significantresearch will be possible for dissemination through the following channels: (1) contributions ofthe methodologies and processes to education and research journals to add to the common bodyof knowledge, (2) outreach visits to K-12 schools to promote careers in engineering and roboticapplications and (3
Engineering Education, 2024 Enabling In-Class Hands-On Electronics Opportunities through Flipped Classroom using Openly Available VideosAbstractThis discussion reports on our efforts to utilize open classroom time for hands-on experimentalmeasurements as well as other hands-on engineering (ECE) projects. These in-class interactionsincrease student confidence with hands-on tools, where class time becomes time for grouphardware discussions. This discussion will describe our efforts utilizing hardware-based classprojects throughout the undergraduate and graduate ECE curriculum. Revolutionary integratedcircuit platforms are part of these efforts, and a history of these efforts will be described in thispaper. These efforts improves the
course is on spacecraft design tools. The students becomefamiliar with the spacecraft design tools that are used in the final design course. The toolsinclude STK, IDEAS, NASTRAN, and MATLAB/Simulink. They also become familiar withsystem software such as Aerospace Corporation Corporation Conceptual Design Center tools andspacecraft cost estimation. The second course is on spacecraft system engineering where theyreview the design aspects of all subsystems, systems engineering, and do an individual designproject. In the final capstone course, they do a team spacecraft design project. The spacecraftperformance requirements are given by a sponsor. The students have mentors in each subsystemfrom industry, Aerospace Corporation and government
f student skilldevelopment. This paper describes one type of skills assessment — student self-estimates of skill— in a first-year engineering projects course. The Skills Assessment Inventory for this coursewas developed by translating the course objectives into six measurement scales. One hundredsixty-two, first-year students completed the Skills Assessment Inventory at the beginning andend of the semester. This paper provides discussion of the significant differences between thepre-test and post-test scores as well as significant differences between genders on the SkillsAssessment Inventory scales.IntroductionHands-on curricula have been found to be an effective method for teaching engineeringconcepts.1 In the Integrated Teaching and
construction management (CM) courses are often challenging due to different learningstyles. Students are expected to generate three-dimensional (3D) models by mentally visualizingall project components and supporting task sequences. Students with little or no practicalexperience find such exercises challenging, spending unnecessary time developing and scheduling3D digital models. This research investigates 4D implementation based on an Industry-Academiccollaboration in the classroom. 4D allows connecting schedule activities with an industry-provided3D model to use data to understand the project timeline and build a building during the constructionphase.Furthermore, a real-time construction schedule with all the project components to visualize a
Paper ID #36738Work in Progress: Aligning a Professional DevelopmentProgram with Industry NeedsAudeen W. Fentiman (Crowley Family Professor in Engineering Education) Audeen Fentiman is the Crowley Family Professor in Engineering Education at Purdue University and principal investigator for an NSF-sponsored project to develop, deploy and evaluate online instructional modules in model-based systems engineering. She spent more than a decade in industry and 25 years as a Nuclear Engineering faculty member before transferring to Engineering Education.John W. Sutherland (Chair)Daniel DelaurentisKerrie A Douglas (Assistant
, the Entrepreneurial Mindset, and pedagogies including Inquiry-Based Learning, Project-Based Learning, and Active Learning. He serves the Grainger College of Engineering at UIUC as an Entrepreneurial Mindset Fellow for the Academy of Excellence in Engineering Education.Marcia Pool (Assist. Dir. for Education and Teaching Assoc. Prof.) Marcia Pool is the Assistant Director for Education at the Cancer Center at Illinois and a Teaching Associate Professor in Bioengineering. She holds a Ph.D. in Biomedical Engineering and has served for thirteen years as teaching faculty/staff in bioengineering and six years in departmental/institute educational administration. She focuses on identifying and evaluating mechanisms to enhance
capstone course of the RISE-UP curriculum and requires theintegration of concepts and skills learned throughout previous courses on the design of a resilientand sustainable structure. For this group, the project consisted of designing a module that couldbe easily constructed or assembled to temporarily substitute a school building or classroomdamaged by a natural disaster. The general instructions for this project were the following: The exercise requires each team to design a modular classroom unit, which when joined with one or more of other similar units will function as a system that operates as a microgrid under the premise of operating in a net-zero manner. As a group, you will select the School or Schools in Southern
practiceSeveral engineers specifically sought out this course since it provided an opportunity to doproject-based learning. April, who was the only female engineer in the course, purposelyenrolled since she wanted to do more projects instead of “theoretical stuff.” She had beendisappointed with the lack of hands-on projects in her engineering program and did not want towait until her capstone to develop project-based experience. Working in an art-based projectprovided her an opportunity to shift her focus from function to aesthetics. In addition, working inthe art space allowed engineers to do projects that they could not do in a traditional engineerspace, such as casting a molding, which were deemed as too messy for the engineering building.Humanizing
were required to take a capstone design course in theconsecutive semester. Some students worked on the same project continuously from ENGR4520to ENGR4950 for development of final design and prototyping.MethodsThe ENGR4520 course consisted of lectures, student presentations, labs, documents and a majorteam project that led to final design. The main goal of the team project was to expose students tothe design and engineering challenges in the application of biomedical engineering. Thesechallenges were complex and multidisciplinary by nature, and students were required tounderstand specific medical/biological issues relevant to their projects. In class, students weredivided into groups (4-5 students per group) and selected their own project from
Paper ID #16899Designing Communications and Power for an Instrumentation System forNatural Resources Research in a Remote Mountainous LocationDr. Herbert L. Hess, University of Idaho, Moscow Herb Hess is Professor of Electrical Engineering at the University of Idaho, where he teaches subjects in He received the PhD Degree from the University of Wisconsin-Madison in 1993. His research and teaching interests are in power electronics, electric machines and drives, electrical power systems, and analog/mixed signal electronics. He has taught senior capstone design since 1985 at several universities. c
adjunct associate professor in the Technology, Engineering, and Design department at NC State and earned her doctorate in Technology, Engineering, and Design in the College of Education at NC State University. c American Society for Engineering Education, 2019 Evaluation of collaborative REU exploring the energy spectrum from body-heat harvesting to smart grid technologyEngaging in research is one of the few and critical project-based learning experiences of theundergraduate engineering career. Typical students are rarely exposed to authentic applicationsof engineering design, research, and/or multidisciplinary content until the capstone course at theend of their undergraduate curriculum
composite materialsused in their co-op jobs, senior thesis work, and other capstone course projects. A coursefocusing on the composite materials is much needed. In a recent Polymers Industrial AdvisoryBoard Meeting at Kettering, the authors proposed a course outline to be developed on mechanics,processing, and design aspects of fiber-reinforced composite materials. The Board approved theproposal and gave input and a strong endorsement to the endeavor.The topic of composite materials has a very broad spectrum. From a material science andengineering aspect, microstructures and properties are the main focus. The mechanics ofcomposite materials includes equilibrium, stress, strain, deformation, linear and nonlinearbehaviors and the relationships
process are represented by thepartner personnel – entrepreneurs, engineering, project managers, CEO’s, intellectual propertylawyers, state economic development officials, and venture capital representatives. Thesepartners are involved in the following activities: 1) evaluating the dual degree program as a whole; 2) evaluating student projects and advising the student teams; 3) offering student teams technical and business expertise; 4) advising dual degree program in development and curricular issues; 5) contributing intellectual property (ORNL alone has a portfolio of over 1000 patents) and project ideas; 6) serving as guest lecturers in graduate product development courses;Advising student teams involves attending
Paper ID #7863Just-in-Time-Teaching with Interactive Frequent Formative Feedback (JiT-TIFFF or JTF) for Cyber Learning in Core Materials CoursesProf. Stephen J Krause, Arizona State University Stephen J. Krause is professor in the Materials Science Program in the Fulton School of Engineering at Arizona State University. He teaches in the areas of engineering education design, capstone design, and introductory materials engineering. His research interests include evaluating conceptual knowledge, misconceptions and their repair, and conceptual change. He has co-developed a Materials Concept In- ventory for assessing
, prerequisite courses could anticipate the use of certain concepts or equipment andbe given a preview. Likewise follow-up courses could build on prior efforts. The most likelyfollow-up courses would be the senior projects capstone or individual research projects (directedstudy, MS theses). For the sake of the proposal document many technical details were notenumerated. However, even at this initial stage of planning, additional working documents werecreated for each course which detailed projects and how topical coverage could be enhanced. Itis certainly the case that most of this could not have been accomplished without the in-depthknowledge provided by the recent graduates of the CS program. These graduates were able tobalance the needs of a specific
Session 2171 First Year Engineering Experience Initiative1 E. Wang, N. Velasquez-Bryant, J. Adams, T. Batchman, P. Cantrell, E. Jacobson, W. Johnson, J. Kleppe, J. LaCombe, N. LaTourrette, G. Norris, W. Sparkman, and Y. Varol University of Nevada, RenoAbstractThis project is one of nine projects supported by the Hewlett Foundation’s Engineering Schoolsof the West Initiative. At the University of Nevada, Reno the College of Engineering and theCollege of Education are working together on the 5-year project: The First Year
ethical issues and social responsibility, and anappreciation of diversity. University Studies is a four-year general education program offeringFreshman and Sophomore Inquiry sequences, junior level Cluster Courses that help studentsfocus on a particular theme of inquiry, as well as the Senior Capstone project. The FreshmanInquiry sequence (FRINQ) is the introduction to University Studies in a 5-credit-per-term, 3-term sequence.A FRINQ course features moderate-sized main session with a maximum of 36 students plussmaller mentor sections of about 12 students headed by an undergraduate student mentorspecially chosen for their intellectual and social skills. Design & Society is one of 9 themes
; Exposition Copyright © 2004, American Society for EngineeringComparison of pre- and post-course survey results indicate that the problem based learningapproach does address higher-level learning outcomes such as devising an experimentalapproach, specifying appropriate equipment and procedures, and implementing these procedures.It is important to note that other experiments performed by the students during the course areimportant in developing the their abilities to design the load cell experiment. The survey resultspresented here reflect the changes in student attitudes due to all of these experiences, the loadcell project being the capstone event. These results do provide encouragement for a purposelydesigned research
the systematic application of the basic sciences, mathematics and engineering sciences to generate and evaluate specifications for systems, components, or processes. • The form and function of the design must achieve defined objectives and satisfy consumer constraints. • Design should include aspects of creativity, complexity, and iterative decision-making to optimize a solution, and compromise between multiple, and sometimes conflicting, requirements .3,4,5ME 101 is the starting point for the Design Plan. It is the first of four designated design courses6across the four years of the ME curriculum before the capstone design course. The Wobblerassignment attempts to meet the three attributes
Plant Layout Facilities Planning EMGT 357 EN 475 ININ 4040 35422The new course, Energy and Sustainable Management Systems, was developed at Missouri S&Tas the equivalent of a capstone sustainability course. This course focuses on student learningoutcomes that define sustainability from the user, environmental, and economic perspectives andexplore the management of global supply chains when modeled as energy-intensivesociotechnical systems. Page 22.1633.3Year One Results: Indications of Change ResistanceRather than begin with integrated projects for all campuses, the partnership opted to integratethree
purpose of this program is toprovide a means of improving current engineering programs in order to produce quality studentsthat can meet the changing and demanding needs of their future employers. This analysis makesuse of data provided by the Assessment and Evaluation (A/E) team at TAMUK. A commitmentwas made by TAMUK, along with six other FC partner institutions, to thoroughly assess andevaluate the work of students to provide a foundation that would ensure student development andlife-long learning in engineering education.I. IntroductionThis work makes use of data provided in the course of developing Assessment/Evaluation (A/E)results for the Foundation Coalition curriculum development research project at Texas A&MUniversity-Kingsville
apparent that the values andmethodologies were different between the architecture instructor and the engineering andbusiness instructors. The architecture instructor treated the course as a "capstone" project course,where the instructor's job was to foster creativity and to advise the students on their projects.The instructor did not believe in preparing lectures, grading assignments and neglected thecourse assessment and the evaluation of learning, which have become a major concern in highereducation. The engineering and business instructors provided lectures on the principles of thecourse, and graded the assignments and team projects.The above differences in teaching methods created stress among the instructors, which wascarried into the
-solving techniques; (5) fabrication specifications can be determined from the designs; and (6) Page 3.529.1designs can be assessed and evaluated at various points in the design process (Dym, 1994).What students should learn from designThe methods faculty choose to teach engineering design relate to the skills and competenciesthey wish to develop in students. For instance, faculty often choose to use design projectsbecause these projects involve open-ended problems that more closely resemble the work ofprofessional engineers (Harris & Jacobs, 1995). Open-endedness is useful because students learnthat at times no one “right answer” to a problem
rear suspension. Two other students received credit towardstheir Senior Project for working on the array. This author gave solar car related problems in ET384 as a project. These problems were based on Sunrayce regulations and involved acceleration,deceleration, stopping time and distance traveled during the braking test of the Solaraider III.One student received credit in the capstone course for designing and fabricating the canopy.This author performed a detailed analysis of all moving parts of the Solaraider III consideringdifferent theories of failure.3 The frontal, rear, side, and roll over impacts were also consideredin the analysis. Some team members participated in this task. Another faculty member in thedepartment helped us with the
pursuing degrees in theengineering field. Students in the Mechanical, Electrical, and Industrial fields along withmany others can learn many new skills from multi-disciplinary projects such as the rapidprototype design of a walking robot. Such projects show students how to use differenttypes of technology, and demonstrate how advanced technology can be used in an actualapplication. This project teaches future engineers and technologists various advancedskills that can be used in their careers. Overall, many different fields of engineering canbenefit from this application, enabling the development of skill and knowledge in manydifferent engineering aspects and processes. Students in the Applied Engineering Technology programs are required
alarger project to integrate design concepts throughout the chemical engineering curriculum atSouth Dakota School of Mines and Technology (SDSM&T).IntroductionTraditional undergraduate laboratories in chemical engineering provide students an exposure toconcepts of engineering science learned in the classroom, but do not provide open-ended, designexperiences similar to what graduates might face as chemical engineers in industrial positions.The traditional experiments in a unit operations laboratory tend to be created around fixed piecesof equipment. The procedures, data collection and analysis, and presentation of results tend to benearly identical for every team of students assigned to conduct a particular experiment, resultingin students
-longengineering design experience early in their academic career by participating in capstone designcourses for graduating seniors; (4) to strengthen existing faculty relationship with NASA Ames,and establish new collaborative relationships among two-year and four-year engineering faculty,and NASA Ames Research Center; (5) to increase the number of academically preparedcommunity college students transferring to four-year institutions as engineering majors; (6) toimprove academic success of engineering students from underrepresented groups by providingacademic support and mentoring; and (7) to increase the number of minority students pursuingadvanced degrees in STEM fields.Summer Intern Project DescriptionFor the second year of the project in summer 2012