Paper ID #21701Work in Progress: Sustainable Engineering for non-EngineersCapt. Katherine Sievers, US Air Force Academy Katherine Sievers is a Senior Instructor in the Civil Engineering department and the US Air Force Academy. She teaches courses in Sustainability, Environmental Engineering, Fluid Mechanics, and Introductory Statics. Prior to teaching she worked as a Bioenvironmental Engineer for three years. She received her BS in Environmental Engineering from the US Air Force Academy and her MS in Environmental Engi- neering and Science from the Air Force Institute of Technology.Prof. Melissa Stewart Beauregard
AC 2012-4754: HYBRID COURSE DESIGN: LEADING A NEW DIREC-TION IN LEARNING PROGRAMMING LANGUAGESDr. Lulu Sun, Embry-Riddle Aeronautical University, Daytona Beach Lulu Sun is an Associate Professor in the Department of Freshman Engineering at Embry-Riddle Aero- nautical University, where she has taught since 2006. She received her B.S. degree in mechanical en- gineering from Harbin Engineering University (China), in 1999, and her Ph.D. degree in mechanical engineering from University of California, Riverside, in 2006. Before joining Embry-riddle, she worked in the consulting firm of Arup at its Los Angeles office as a Fire Engineer. Her research interests include pedagogy in engineering education and fire behavior
nanotube composites.The activities developed are tied to 6th – 8th grade California math standards and provide studentswith an opportunity to see how math can be used to solve authentic engineering researchproblems. Pre and post-surveys were conducted to measure the impact of the visitingengineer/scientist and the research-related activities on students’ perceptions towards engineersand their desire to pursue a career in engineering or science. The results related to this particularresearch will be presented as well as the results and findings for all fellows during the 2012-13school year.Carbon Nanotube Composites – An Authentic Research ProblemOverview. The main objective of this research project is to create composite materials with acarbon
process through guided andindependent scientific inquiry into the problem, and approaches, materials and methods used forsolving problem. New course modules draw from current social contexts such as health, sustainabilityand issues impacting human and social dynamics. Problems are open-ended and creativity andcommunication are emphasized. Specific examples of redesigned course modules, formal and informalstudent feedback and plans for future work are offered.Introduction:According to a recent National Science Board (NSB 2010) report, the Science and Engineeringcapacityhas grown over the past few years around the world and while it allows greater cross-bordercollaboration, and a larger pool of researchers, it presents “definite challenges to U.S
communication inside andoutside them [8]. These systems, also called Social Representations (SR), constitute the symbols ofcommon sense [9] and are embodied in the form of attitudes and information, creating a field ofrepresentation that a specific group shares about a social object. This object could be material (things andbeings) or immaterial (ideas, thoughts, concepts, etc.), meaning that the SR also involves the external andinternal realities. According to Moscovici [9], in SR, attitudes are the actions and intentions to action thatare manifested concerning a common topic. They are usually represented in the form of values, emotions,and behavioral reactions. Information is the level of knowledge that a group has about the social object.The field
in middle and high school classrooms. Students report improved teamwork andcommunication skills in addition to the gratification of seeing their hard work come to fruitionwhen students engage in the lessons they have created. These design challenge experiencesbroaden participation in engineering by appealing to a wider group of students, who might beinterested in the humanitarian aspects of engineering and STEM in general.BackgroundEngineering competitions are a popular mechanism to engage students in engineering and, morebroadly, STEM studies and careers. Competitions can be class-specific (Mentzer, 2011; Sadler etal., 2000) or school/community-wide (Mejia et al., 2015; Van Haneghan et al., 2015), and areused at all educational levels, K-16
Paper ID #45316LEVERAGING GENERATIVE AI TO ENHANCE ENGINEERING EDUCATIONAT BOTH LOW-LEVEL AND HIGH-LEVEL STUDYDr. Zhou Zhang, SUNY Farmingdale State College I am an Assistant Professor at SUNY Farmingdale State College. My teaching and research interests include robotics and virtual reality in engineering education. I have a Ph.D. and a bachelor’s degree in Mechanical Engineering, and my master’s degree is in Electrical Engineering. I have over seven years of industrial experience as an electrical and mechanical engineer. I also have extensive teaching and research experience with respect to various interdisciplinary
IE 343 or equivalent 3Fluid mechanics ME 309, CE 340, ChE 377, A&AE 333 or equivalent 3Major design experience EPICS (senior design option) or IDE 485 3Professional Preparation IDE 301 1Typical Engineering Core total credits 19-21Engineering Selectives: Do parts a, b, and c.a. Engineering design: ME 413, Noise Control 3b. Three credits of hands-on (not computer) laboratory. 1 cr lab + 2 engr labc. Engineering course in materials or strength of materials. 3 Total credits engineering
data for transfer and non-transfer students inengineering as well as qualitative data collected from interviews and focus groups with studentsand key faculty and staff stakeholders working with engineering transfer students, we expandcurrent work on transfer student capital, articulation agreement efficacy, transfer supportservices, enrollment and guaranteed transfer policies, coursework transfer processes, and co-curricular support programs within the undergraduate engineering context. Our poster willhighlight major findings thus far, including: the impact of integrating community collegestudents into university study abroad programs as a mechanism to preemptively help transferstudents with the institutional transition process; the complexity
, smart CNC machining, Taguchi parameter design in manufacturing processes.Ye Li, Bradley University Ye Li, Ph.D., is an assistant professor in the Department of Physics and Technology at Edinboro University of Pennsylvania. He received his B.S. and M.S. degrees in Mechanical Engineering from Shanghai Jiao Tong University, P.R. China, in 2000 and 2003 respectively, and obtained his Ph.D. in Industrial Engineering from Iowa State University in 2008. His teaching interests include: Manufacturing Processes, CAD/CAM, CNC Machining, Engineering Mechanics, and Machine Design. His research interests include: Manufacturing Processes and Rapid Prototyping, Manufacturing Systems Engineering and
, internationalperspective, project management, communication, problem solving, and teamwork wereidentified as professional competency gaps. Supply chain management, specific manufacturingprocesses, manufacturing process control, manufacturing systems, quality, materials,product/process design, and engineering fundamentals were identified as technical competencygaps. We at UMR and FV, along with the support of industrial partners and the State ofMissouri, are working to develop our manufacturing curricula to close these gaps. III. Proposed Approach The proposed program is developed around a capstone design and manufacturing projectcourse and the development of the program includes the following tasks:• Developing a two-semester long, capstone design and
facilities, equipment, coursecontent, and the design of course material for studio delivery. This experience, aimed at enhancing student learning,may be of interest to other instructors contemplating the use of studio-teaching in their own programs.Keywords: studio-style instruction, active learning, peer-interaction, new engineering program. INTRODUCTIONEngineering graduates with the best practical design, analysis, and team effort skills will have the best careeropportunities [1]. However, students often find it difficult to connect the theoretical and practical aspects ofengineering [2]. Increased motivation and participation in the learning process helps students work harder and learnfaster. A
., vol. 13, no. 2, pp. 173–197, 2003.[9] S. Sangelkar, O. M. Ashour, R. L. Warley, and Oladipo Onipede Jr., “Mastery Learning in Engineering: A Case Study in Statics.”[10] R. L. Armacost and J. Pet-Armacost, “Using Mastery-Based Grading to Facilitate Learning,” in Frontiers in Education, 2003. FIE 2003 33rd Annual, 2003, vol. 1, pp. T3A– 20–5 Vol.1.[11] W. F. Riley and L. D. Sturges, Engineering Mechanics: Dynamics, 2 edition. New York: Wiley, 1995.[12] W. F. Riley, L. D. Sturges, and D. H. Morris, Mechanics of Materials, 6 edition. Hoboken, N.J: Wiley, 2006.[13] S. R. Turns, Thermodynamics: Concepts and Applications. Cambridge University Press, 2006.[14] J. Ranalli and J. P. Moore, “New Faculty Experiences with Mastery
complicated impacts of learning technologies and design on K-12 STEM curriculum, pedagogy, and institutional policies in the Philippines and Canada.Prof. Andre Phillion, McMaster University AndrA©˜ Phillion is an Associate Professor in the Department of Materials Science and Engineering and Director of the facultyˆa C™s Experiential Learning Office at McMaster University, Hamilton, Canada. His research interests focus on mathematical modelling ©American Society for Engineering Education, 2023 First-Year Students in Experiential Learning in Engineering Education: A Systematic Literature ReviewDr. Gerald TembrevillaGerald Tembrevilla is an Assistant Professor at Mount Saint Vincent
Paper ID #7662Inquiry-Guided Learning (IGL) in Graphical Communications CourseDr. Lulu Sun, Embry-Riddle Aeronautical Univ., Daytona Beach Dr. Lulu Sun is an associate professor in the Department of Freshmen Engineering at Embry-Riddle Aeronautical University, where she has taught since 2006. She received her B.S. in Mechanical Engi- neering from Harbin Engineering University at China in 1999, and her Ph.D. in Mechanical Engineering from University of California at Riverside in 2006. She is a professional member of the Society of Fire Protection Engineer, and a member of American Society of Engineering Education, and
Paper ID #17316Freshman Residential Schools for Undergraduate On-Campus and OnlineEngineering StudentsDr. John Matthew Long, Deakin University Dr. John M. Long completed his undergraduate degree in physics at the University of Michigan (Flint) in 1987, while working as an analytical chemist at AC Spark Plug, General Motors Corporation. In 1995 he completed a PhD in physics at Monash University in Melbourne, Australia. Since then he has worked in the School of Engineering at Deakin University, where he teaches physics, materials, and electronics. His research interests include materials-analysis techniques and engineering
transfer inthe human body.The learning objectives of this hands-on experiment are (1) to analyze chemical reactions thatproduce energy from food (2) to perform material and energy balances on the body, (3) toprepare a simple process flow diagram, and (4) to use a process simulator to investigate rates ofheat transfer during respiration. Students use their own gas exchange respiration data tocalculate their rate of energy expenditure and mechanical efficiency during cycling. They usereaction stoichiometry to determine the quantities of fats and carbohydrates that are used asenergy sources. They apply energy balances to determine the rate of heat transfer throughrespiration, and compare this to the total energy expenditure. Finally, students create
allow students to discover the responsibilities of varioustypes of engineers.In-class presentations by outside faculty and/or student services were minimized with theexception of Co-Op, Study Abroad, and the Career Center in an effort to minimize the "talking-head" visitations that usually had little or no connection with the remainder of the course.However, some class presentations were used as the basis for other discussions. For example,the faculty from the Civil Engineering robotics laboratory discussed materials selection andequipment design for a lunar mining operation. This was a basis for discussion on projectwork, technical presentations, evaluations, data analysis, etc. Another presentation was from astudent group working on the
ElectricalEngineering and Mechanical Engineering Plans of Study. An overview of the course and it’splacement within a vehicle system option in electrical and mechanical engineering is outlined asa context for the data acquisition and control laboratory activities. Course instruction presentsvehicle data acquisition applications while including discussions on the operation and testing of ageneric electric vehicle drive train. An internal combustion vehicle and a vehicle chassisdynamometer are also used in the laboratory experience.A sample laboratory project and assessment discussion is presented. An assessment datasummary is also provided for the previous offering of the course along with the larger setting ofengineering professionalism data in electrical and
across multiple representations (word, icon, image), andsupports consistency across modalities (software, planning board, physical materials).ContributionsIn this paper we’ve identified three design considerations that emerged in a technology co-designfor teaching robotics and computational thinking practices alongside executive functioning skillswith autistic middle school students. We’ve summarized these as: 1. Technology supports students to navigate a teacher-mediated trajectory of structured tasks, moving toward independent participation in CT practices 2. Task structures include feedback mechanisms and routines to support students’ continued independent participation by attending to executive functioning needs 3. Resources
each fall, approximately ~25-28 sections of this course are offered;• Classes meet in special computer equipped multi- media classrooms this set- up facilitates the learning/teaching style desired and the classroom activities;• Regular faculty from the 11 engineering departments in the College, as well as staff in the First Year Engineering Program serve as instructors of the course;• There is no textbook for this course, all materials are available on the course web page and in the College of Engineering Student Handbook (students are required to purchase);• Student Engineering Leaders (SELs) are used to assist in achieving the goals of the course, these are upper- level engineering students who serve as TAs for the various
students’ curiosity and creativity towards technical issues through hands-onlessons and activities. The organization was initially limited to graduate students in structuralengineering and focused on the 6th grade at an inner city school. The organization hastransitioned over the past 6 years into a largely undergraduate club with numerous urban andsuburban schools participating. Student teams from all discipline areas (Civil andEnvironmental, Chemical, Mechanical, and Electrical and Computer) visit several schools andcomplete projects with 6th, 7th and 8th grade students with the themes of infrastructure, greenengineering and chemistry, and mechanical/electrical engineering, respectively. The programculminates in a campus visit by the middle
Paper ID #30590Increased Performance via Supplemental Instruction and Technology inTechnical ComputingDr. Nathan L Anderson, California State University, Chico Dr. Nathan L. Anderson is an Assistant Professor in the Department of Mechanical and Mechatronic Engineering and Sustainable Manufacturing at California State University Chico. He engages in multiple research projects spanning computational materials science to educational pedagogy. Prior to joining academia, he worked in the semiconductor manufacturing industry for KLA Corporation. Before industry, he spent time at Sandia National Laboratories. He earned his Ph.D. in
-suited for thestudy as it fosters the improvement of social practices by engaging participants in designing datacollection processes, analyzing findings, and testing identified strategies in real-world settings[3].ParticipantsParticipants were drawn from ten departments within the College of Engineering, includingBiomedical Engineering and Mechanics, Civil and Environmental Engineering, Industrial andSystems Engineering, Mining and Minerals Engineering, Computer Science, Electrical andComputer Engineering, Mechanical Engineering, Aeronautical and Ocean Engineering,Chemical Engineering, and Construction Engineering and Management. A total of 18participants, with a maximum of two per department, were selected based on departmentalrecommendations
emergence of radar, advanced controls, and computers.Soon there was the development of television and discrete electronics. Each advance broughtnew material to be included in the curriculum. As electrical engineering expanded, the need forall students to study all subjects within electrical engineering was debated. A feeling developedthat a large portion of the students would never need or use some of the more traditional material.It ceased to be relevant to the students' careers. Pressure was applied to cut some of these moremature topics. Energy conversion lost out.Since the late 1970's we have experienced rapid changes within the energy conversion field withthe advent of power electronics and wide spread use of permanent magnets. There has been
texts into classes.4.1 Course and MaterialsThe materials for analysis were drawn from a sophomore-level ethics course at a large publicResearch 1 (Carnegie classification) university. This course is required of most engineeringmajors. Ethical reasoning is developed through an introduction to ethical theories andcontemporary ethical issues in engineering, technology and society. Course materials andassignments consider intuitionism, which is a person’s intuitive reaction to ethical issues, threeethical theories – i.e., utilitarianism, respect for persons (Kantian deontology), and virtue ethics –and the National Society of Professional Engineers (NSPE) code of ethics. Through a variety ofactivities and formats, students analyze and respond to
dimensions of the rubric are then furtherUSA, (corresponding author, 802-485-6295; fax: 802-485-2260; e-mail:EdwinS@ Norwich.edu). divided into the specific areas for scoring shown in Table 1. A Mike Kelley, is an Associate Professor in the Department of Civil and condensed version of the EPSA rubric is included in AppendixEnvironmental Engineering at Norwich University, Northfield, VT, 05663, B. McCormack et al. explored best practices for administeringUSA (e-mail: mkelley@norwich.edu). Steve Beyerlein is a Professor in the Department of Mechanical and using the EPSA rubric6.Engineering at the University of
Yale University established the professorship of “agriculturalchemistry and animal and vegetable physiology.” The movement was further strengthened by theLand Grant College Act of 1862 whereby the federal government gave land to each state insupport of both education in liberal arts and training in the skills that ultimately would supportthe emerging agricultural and mechanical revolutions. The Hatch Act of 1887 added fuel to theeffort by providing federal funds to create university-sponsored agricultural experiment stationsthat brought knowledge to the farmer. American higher education which was once devotedprimarily to the intellectual and moral development of students, added service as a mission, andthe public university was born
createcapstone projects that involve students from multiple engineering disciplines. While this cansatisfy the requirement, a closer reading yields both a different interpretation and an approach toassessment: Students can demonstrate the ability required by criterion 3-d by showing theirunderstanding of what information they need to share with other specializations as part of thedesign process. For example, plants designed by chemical engineers or environmental engineersrequire data from laboratory-scale tests, and their design specifications are in turn used by civilengineers and power engineers, among others, to complete the project. Many product designsrequire interaction between mechanical and electronic engineers.This interpretation does not
Paper ID #37085Teaching Climate Change in an Introductory Civil Engineering CourseDr. Yufeng Hu, Western Michigan University Dr. Yufeng Hu is a lecturer in the Civil and Construction Engineering Department at Western Michigan University. He teaches a variety of engineering mechanics and civil engineering courses. He is the coordinator of the senior Capstone design program in the department.Elise DeCamp, Western Michigan University Elise DeCamp received her Ph.D. in Anthropology from Indiana University, Bloomington. She is a Fac- ulty Specialist I in the Institute of Intercultural and Anthropological Studies at Western