, and data collection and analysis. The students ultimately develop their confidencein problem solving and design skills using a balsa wood bridge design project. The skills, tools,and techniques developed during the semester in class and in laboratories are applied to thedesign and construction of the bridge. Students, operating in teams of three to five, also learn towork with their peers. The teams are given a Request for Proposals (RFP) and allowed toexercise creativity within the scope of the RFP. Students progress through the design process(concept, preliminary, and final phases) using both written and oral communication. The finalgrade of the design process is based on their prototype and on written and oral presentations. Atthe
SESSION 3213 Enhancing Underrepresented Student Opportunities Through Faculty Mentoring and Peer Interactions Antonio A. Garcia, Gary D. Keller, Albert McHenry Arizona State University Fred Begay Los Alamos National Laboratory During the past seven years, an alliance of colleges and universities within Arizona, Colorado,New Mexico, Nevada, Utah, and Western Texas along with professional organizations,government laboratories, educational organizations, and corporations has been committed to oneof the most
. • c. mfg. competitiveness • •Proficiencies d. mfg. Systems design • • e. laboratory experience • • • • a. apply knowledge • • • • • • • • • • • • • b. design & conduct experiments • • • c. design to requirements • • • ABET d. function on interdisciplinary teams • • • • • e. define & solve engineering
AC 2011-1530: MODEL-ELICITING ACTIVITIES IN A MECHANICALENGINEERING EXPERIMENTAL METHODS COURSEJohn Ridgely, California Polytechnic State University John Ridgely is an associate professor of mechanical engineering at California Polytechnic State Univer- sity in San Luis Obispo.Brian P. Self, California Polytechnic State University Brian Self is a Professor in the Mechanical Engineering Department at California Polytechnic State Uni- versity in San Luis Obispo. Prior to joining the faculty at Cal Poly in 2006, he taught for seven years at the United States Air Force Academy and worked for four years in the Air Force Research Laboratories. Research interests include active learning and engineering education
. His research focus is on biology education including the use of inquiry and tech- nology in the teaching introductory biology lecture and laboratories. He has published articles on the impact of teaching in reformed courses on graduate students.YoonJung Cho, Oklahoma State University Assistant professor in the School of Applied Health and Educational Psychology at Oklahoma State Uni- versity. Her research is focused on students’ achievement motivation and self-regulated learning process as well as teachers’ motivation and its impact on instructional practices, both in traditional classroom setting and online instruction. She published articles on graduate teaching assistants’ professional devel- opment as well as
AC 2010-851: DEVELOPING AN ENERGY LITERACY CURRICULUM FORINCOMING FRESHMEN AT BAYLOR UNIVERSITY: LESSONS LEARNEDKenneth Van Treuren, Baylor University Dr. Van Treuren is a professor on the faculty in the Mechanical Engineering Department at Baylor University. He teaches the capstone Mechanical Engineering Laboratory course as well as courses in heat transfer, aerospace engineering, gas turbines, fluid mechanics, and wind power. His research interests include energy education and gas turbine heat transfer. He can be contacted at Kenneth_Van_Treuren@baylor.edu.Ian Gravagne, Baylor University Dr. Gravagne is an assistant professor with the Electrical and Computer Engineering department at
. Recognizing that engineers need material from both semesters of the traditional twosemester sequence, a new one-semester course was developed. This course has been designedaround the pedagogical theme that "The properties of larger particles are based upon theproperties of their constituent particles and their interactions". As such, the students areintroduced to "modern" physics. To deliver a course such as this effectively , we have found thatwe need to adopt innovative teaching techniques including: focusing on the recitation, frequentfeedback, the use of the studio-format, closer integration of the laboratory experience with thecourse, self-directed laboratory exercises, context- based learning, and the use of the internet.The course structure
opportunity to explore how we could teach this course more effectively.Innovative use of technology and media impacted not only what we were able to do in thelecture, but also the laboratories that are part of part of the course. The lectures were captureddigitally and made available using streaming video. This gives students flexibility in viewinglectures multiple times as they learn. Before this, students only had the option of viewing thecontent in a synchronous mode. One of the other powerful advantages of using technology wasthe ability to bring examples from the real world into the classroom. For example, in discussingfinite state machines the instructor did a remote session in front of a vending machine, whichillustrated the concepts using
scholar in the School of Chemical, Biological, and Environmental Engi- neering at Oregon State University. Debra has an M.BA, an M.S, and four years of industrial experience including a position in sensor development. Sensor development is also an area in which she holds a patent. She currently has research focused on student learning in virtual laboratories and the diffusion of educational interventions and practices.Prof. Erno Lehtinen, University of Turku ERNO LEHTINEN is professor of education at the University of Turku and is currently holding a five- year Academy Professor position in the Centre for Learning Research of the University of Turku. He has studied early development of mathematical skills, technology
Paper ID #10633Ultra Low-Cost Software-Defined Radio: A Mobile Studio for Teaching Dig-ital Signal ProcessingDr. Cory J. Prust, Milwaukee School of Engineering Dr. Cory Prust is Assistant Professor in the Electrical Engineering and Computer Science Department at Milwaukee School of Engineering (MSOE). He earned his BSEE degree from MSOE in 2001 and his Ph.D. from Purdue University in 2006. Prior to joining MSOE in 2009, he was a Technical Staff member at MIT Lincoln Laboratory. He teaches courses in the signal processing and embedded systems areas.Dr. Steven Holland, Milwaukee School of Engineering Steven S. Holland (M ’13
, Undergraduate Programs (IBBME) and the Associate Chair, Foundation Years (Division of Engineering Science), she is currently the faculty advisor for the Discovery Educational Program. Dawn is a recipient of the 2017 U of T Early Career Teaching Award and was named the 2016 Wighton Fellow for excellence in development and teaching of laboratory-based courses in Canadian UG engineering programs. American c Society for Engineering Education, 2021 Discovery: Transition of an inquiry-focused learning program to a virtual platform during the COVID-19 pandemic (Evaluation)AbstractThe shift to distance learning in response to the COVID-19 pandemic has presented teachers
inharm to employees, the environment and in some cases the public in highly publicized eventssuch as Bhopal and Deepwater Horizons. Risks are tolerated when hazards are controlled; whenan incident occurs, the risk becomes intolerable. The public reacts negatively to events involvingemployee deaths, environmental damage or threats to their homes.Incidents often result in negative publicity and a call for change. For example, a runawayreaction led to an explosion at a company called T2 Laboratories in Jacksonville, FL inDecember 2007.3 The blast killed four people. Another thirty two people were injured; fourteenrequired treatment at a local hospital. In response, the U.S. Chemical Safety and HazardInvestigation Board (CSB) called for improvements
system using MATLAB (STUBA, Bratislava, Slovakia). Laura performed her graduate studies at Villanova University where she obtained her M.Sc also in Chemical Engineering. Her graduate thesis work involves the characterization & upgrading of biocrude-oil from waste lignocellulosic biomass at Villanova’s Chemical Engineering Biomass Conversion & Research Technologies Laboratory under Dr. Justinus Satrio. Currently, Laura is a process engineer for Jacobs Engineering where she is involved in the design of biopharmaceutical facilities. Dr. Justinus Satrio’s Biography Dr. Justinus A. Satrio is an Assistant Professor of Chemical Engineering at Villanova University, Penn
. © American Society for Engineering Education, 2022 Powered by www.slayte.comFlipped Classroom to increase the Student Success in Manufacturing CoursesAbstractDelivering hands-on design and manufacturing courses is challenging in several lecture andlaboratory settings. This type of instruction is even harder lately due to higher educationinstitutions' strict COVID-19 policies and procedures, since offering the courses in on-groundsettings is not a possibility. One method practiced by a high number of educators to meet courselearning outcomes and ABET student outcomes is to implement the Flipped Classroomtechnique. In a Flipped Classroom, course lectures and laboratories are provided to studentsearlier than the
methods for the course 3 (ET 323) (21 Students) Parameter Lecture Lab Discussion Mean 39 46 15 Median 33 53 15 Mode 50 40 10From Table 1, it is clearly evident that students want to have more lectures than lab anddiscussion modes for instructional purposes, because the course CET 308 is the theory basedone. However, from Table-5, it is known that only 39% of the class instruction should be oflectures and the rest of the time should be devoted to laboratory and discussions as this course isa laboratory-based course. From Table-2, only 23% of assessment should be of exams, and therest of 77% should come from “non-exam” modules. Likewise, for all the courses the
ofstructure, all courses had weekly online assignments (approximately 12-14, based on the course)and 3 examinations. One course (ECE 383) also had a laboratory component with studentsattending and completing 8 laboratories during the semester. Each course was designed by theinstructor for a face-to-face delivery with initial syllabi and student learning objectives providedby the department (so these courses were not new courses for the instructor to develop). Detailsregarding the design and differences between styles of delivery as the courses evolved from face-to-face to asynchronous to flipped style are detailed below: Face-to-Face Format: For each course, 150 minutes of lectures were delivered each week. To support students during
Materials Engineering CurriculumAbstractThe research will create an academic program (curricular and co-curricular components) thatintegrates art concepts into an undergraduate engineering program. The goals of the program areincreased student innovation, creativity, collegiality, and entrepreneurship, all while broadeningthe undergraduate talent pool.The programmatic elements are focused on integration of arts in STEM (i.e. STEAM) to achievethe stated goals. The centerpiece is the infusion of STEAM content into laboratories and coursesdistributed throughout a model engineering program in Metallurgical Engineering. Curricularmodifications will be facilitated through involvement of a Resident Artist who will be
smalleruniversities). The hydrology apparatus used by Poor and Miller (2016) was on the order of$50,000. This leads to the instructor either gathering all students around the equipment for ademonstration, or scheduling students to use the equipment at different times. When there is onlyone piece of lab equipment, students often become disengaged. Studies in mechanicalengineering have demonstrated that laboratory experiments conducted with smaller, lessexpensive equipment in small groups greatly increased student engagement3,4,5. Smaller, lessexpensive desktop modules may help improve student engagement and provide students withmore hands-on experience.In this study, we developed 5 small, desktop constructed wetlands modules. The modules fit onthe lab tables
Paper ID #37776Creation of a Mobile Science and Engineering Road Show for Texas A&MUniversity at Qatar: Multicultural STEM Education and Entertainment(Resource Exchange)Mr. G. Benjamin Cieslinski, Texas A&M University at Qatar A resourceful science professional with expertise in STEM fields, science communication, laboratory safety, program management, and chemistry, Benjamin Cieslinski manages the science, technology, engi- neering, and mathematics (STEM) laboratories for Texas A&M University at Qatar’s Office of Advance- ment. He designs and performs demonstrations of science and engineering to local schools via
roles within higher education; secured over $5.5M funding and support for STEM education research; and led several program development efforts, including: a childcare facility at a federal research laboratory, STEM K-12 teacher training programs, a Molecular Biology/Biotechnology master’s degree program at a small internationally-focused teaching institution, as well as a first-year engineering program and a B.S. Engineering Technology degree program at an R1 research institution. She has been recognized for her teaching, advising, and service, and as an Exemplary Faculty Member for Excellence in Diversity, Equity, and Inclusion.Dr. Emily Spayde, West Virginia University Emily Spayde is a teaching assistant professor
Paper ID #37624Keeping Cool with Qatar Cool: A Pre-College Education ProgramEmphasizing Corporate Regional Engineering with Hands-On STEM Learn-ing(Resource Exchange)Mr. G. Benjamin Cieslinski, Texas A&M University at Qatar A resourceful science professional with expertise in STEM fields, science communication, laboratory safety, program management, and chemistry, Benjamin Cieslinski manages the science, technology, engi- neering, and mathematics (STEM) laboratories for Texas A&M University at Qatar’s Office of Advance- ment. He designs and performs demonstrations of science and engineering to local schools via the
American c Society for Engineering Education, 2022 Developing Power Cycles Simulations for an Applied Thermodynamics CourseAbstractAs part of the rigorous curriculum for the Mechanical Engineering Technology (MET) students,laboratory courses supply a critical part of the engineering education through hands-onobservation, measurement, data acquisition, data analysis and interpretation, technical reporting,teamwork, and others. When the access to hands-on laboratory activities was abruptly interrupteddue to COVID-19, there was an immediate need 1) to find practical computer simulations, and/or2) to develop new simulations, both in support of the theory discussed during
manufacturing scheduling, systems control and automation, distributed control of holonic systems and integrated manufacturing, agile manufacturing, virtual reality and remote laboratory applications in edu- cation. He has authored or co-authored various journal and conference publications in these areas. Mert Bal is currently the Chair and Associate Professor at the Miami University, Department of Engineering Technology, Ohio, United States of America.Dr. Farnaz Pakdel, Miami University American c Society for Engineering Education, 2021 Integrating 3D Printing into Engineering Technology Curriculum1. IntroductionThree-dimensional (3-D) printing has witnessed
Logic Controller (PLC) trainerthat can be assigned to a student for the semester. The portable PLC trainer allows students tohave a satisfactory laboratory experience across various modes of instructional delivery.PLCs are used to automate industrial equipment and processes and are frequently used inlaboratory activities in an automation course. At a minimum, a portable PLC trainer should becompact, have protection for the trainer components, provide user interface input and outputdevices, and the PLC programming software should be available for students to install on theirown personal computers.This paper presents the design and development of a portable PLC trainer including therequirements for the trainer, component selection rationale, and
Engineering Education, 2021 Virtual lab modules for undergraduate courses related to building energy systemsAbstractBackground: In engineering education, hands-on laboratory experience is essential to enhancingstudents’ practical skills such as conceptual understanding and problem solving skills. However,many students are not able to participate in practical activities (e.g., laboratory experiments) dueto inaccessible or unavailable “brick and mortar” laboratories, especially when most universitieshave currently adopted online instruction while students are sheltered at home due to the ongoingCOVID-19 pandemic. Purpose: This paper presents a library of virtual laboratory modulesexpanded and enriched from our
run basic experiments for themselves with the intention that theywill develop a deeper understanding of fundamental concepts and relationships from their hands-on experiences. Such is the approach in Principles of Particle Technology , a junior-level 3-credit class inChemical Engineering that has two lecture periods and one 2-hour laboratory period per weekduring a 15-week semester. Particle technology is particularly amenable; key basic experimentscan be done within the laboratory session and the apparatus can be simple. In addition, thechronologies of the lecture and laboratory sessions are arranged to be in step with each other.Students work in pairs on the same experiment in a single laboratory session; each experiment iscompleted within
application of a semester project in an introductory engineering course is not noveland is not discussed further in this work.The lab courses are both 2-hour sections that meets weekly and is led by a faculty member.Students work in pairs to complete laboratories, but are expected to complete quizzes, lab reports,and skills exams independently. In the mechanical engineering laboratory, ENGR 2002, the focusis on an introduction to computer-aided design, measurement, unit conversions, and hands-onfabrication methods. The first few weeks reinforce unit manipulation and conversions that wouldhave first been introduced in high school, and we move quickly to appropriate measurementtechniques and the corresponding concepts of precision and accuracy in
of the multifunctional sensors, and the electronic modules. Many sensorsare already developed and available today but still very short in multifunctional sensors, that candetect more than one type of radiation environment. To design a system that is suitable for bothspace and earth environments in detecting hazardous conditions that can cause fatal diseases, eightMulti-functional sensors were designed and successfully tested under the highest flux of neutronenergy radiation at Los Alamos National Laboratory. Initial findings from this work have shownthat it is possible to have a single multifunctional sensor that can detect two environments. Thesesensors had the same diameter of radiation window so that collected data can be compared
classroom: i) design projects, ii)science laboratories, iii) online lectures, iv) engagement outside of the classroom. The focus willbe on the materials science aspects of the first-year engineering course.2. Experiential Learning Through Multidisciplinary Cornerstone Design Projects Engineers solve real-world problems (not exam questions)! Consequently, regardless ofthe engineering topic being taught, the teaching objectives should always align with real-worldscenarios and prioritize creative thinking and teamwork, to encourage students to envision howthey would solve problems as an engineer, i.e. experiential learning or situated learning [7, 8]. Although first-year engineering students may not have sufficient technical background
2021 ASEE Midwest Section Conference Online Unit Operations Lab, a Difficult Balance Michael A. Rother Chemical Engineering University of Minnesota DuluthAbstractAs a result of COVID-19, teaching Unit Operations Laboratory in an online format becamenecessary in Spring 2020. Implementing experiments, which could be easily conducted fromhome, or at least away from the standard lab environment, but were challenging in nature, proveddifficult. In particular, the labs needed to be amenable to theoretical treatment and significantuncertainty analysis. In addition, the topics studied