also focus on the data in the design of labs, includingcollection, transmission, storage, and presentation. Since the labs are designed mainly forteaching purpose, security issues such as device authentication are not addressed. Web serverand database server will be running on a Linux machine. Since most students are not familiarwith Linux operating systems, they can choose to start the web and database development onWindows and then migrate it to Linux.Devices used in laboratory experiments and the data flow are displayed in Figure 1, whichincludes sensors, ESP8266 WiFi module, Raspberry Pi, and HM 10 BLE module. All devices areprovided by the instructor, except the computer and mobile phone. Table 1 gives a summary oftechnologies covered in
United States Military Academy in 1982. He received his M.S. and Ph.D. degrees in Civil Engineering from the University of Illinois, Champaign-Urbana in 1990 and 1999, respectively. He taught at The United States Military Academy during his 25 year military career. After retiring form the military he has taught at the University of Texas at Tyler and The Citadel, where he was the Dean of Engineering for 10 years.Dr. William J. Davis P.E., The Citadel William J. Davis is Dept. Head & D. Graham Copeland Professor of Civil Engineering and Director of Construction Engineering at The Citadel in Charleston, SC. His academic experience includes: transportation infrastructure planning and design, infrastruct
) Industry with topics in career fairstrategies, networking, information literacy, and corporate skills with a simulated industryinternship to create artificial membrane for kidney dialysis, ii) Healthcare professions with topicsin healthcare operations, emergency medicine, inpatient care, and electronic medical recordswith a clinical shadowing experience, and iii) Research with topics in experimental design,ethics, scientific literature, and translating technologies with a research laboratory shadowingexperience. Students self-selected into the three sections during an advising session and wereasked to provide information before classes started to help facilitate setting up the shadowingexperiences. Each section had the same number of lecture and
operate and develop new programs for the QTERM-G55 handheld at Infinity. After talking with the engineers at Infinity, I wanted to create laboratory experiments that were relevant to real world industrial applications and teach students to think objectively with any problem they faced. Since industrial applications are always changing, I wanted the students to have a good base to revert back to, but also teach them to expand the base code to more complicated designs. To accomplish this objective, my laboratory exercises consisted of a basic format that gave the students fundamental code to start from and then required the students to expand the code to accomplish more complex tasks.” Based on lessons
designexperiences. Starting in their freshman year, the students participate in a program called the Artof Engineering. The course is designed to help students transition from a science-oriented highschool way of thinking to an engineering point of view. In particular, students that participate inthe BME section in this course are introduced to and charged with utilizing the engineeringdesign process to solve open-ended problems. Following this course, opportunities for exploringdesign can be found both within BME laboratory courses and in the parallel lecture courses. Theculmination of the laboratory sequence and the design experiences introduced throughout earliercourses is the required senior “capstone” design course, which includes a significant
, called SoftwareSeries in Civil Engineering Technology Independent Learning Experiment. Instruction wasdelivered in three modules; introduction, bridge design applications, and highway designapplications. The introduction of Microstation © was suggested by Fairmont State College’sCivil Engineering Industrial Advisory Committee. AutoCAD © instruction was already inexistence within the curriculum, and was not eliminated with the addition of Microstation ©. Theinstructors developed their own course manual, consisting of a series of exercises. The exerciseswere oriented around the three modules. The course has received excellent reviews from studentsand employers, including the West Virginia Department of Transportation.In another 2003 paper, Walters
that inquiry-based labs are often more time-consumingand costly for the University and faculty and therefore may not be as applicable as traditionallaboratory courses. The authors mention a field trip, however do not further discuss if the fieldtrip incorporated sampling and analysis.Standard Environmental Engineering labs do not incorporate field exercises into the coursecurriculum. Most introductory, undergraduate Environmental Engineering laboratory basedcourses focus on bench-top experiments. These experiments are important and provide the basework for subsequent lab courses. Another important, but often overlooked, lesson is to Proceedings of the 2013 American Society for Engineering Education Pacific Southwest Conference
of open-ended lab experiences and contributes to thegrowing conversation on innovative engineering education strategies by demonstrating the valueof experiential learning approaches, particularly the integration of entrepreneurial mindsetlearning (EML) into laboratory experiences.Why open-ended labs?The decision to introduce open-ended labs into our curriculum was inspired by the insightsgained from the Summer 2024 Engineering Mechanics in Lab and Design workshop series,hosted by the University of Illinois Urbana-Champaign and supported by the Kern FamilyFoundation. During this workshop, we had the opportunity to explore in more depth the conceptof open-ended labs, engaging with experts and educators who have successfully implementedsuch
-buildcounterparts) would a) understand multifaceted characteristics of the sustainable engineering“problems” that different design-build projects are attempting to resolve, b) understand theadvantages, limitations and tradeoffs inherent to proposed solutions c) gain interest, awarenessand confidence in pursuing / participating in local sustainable development projects c) gainawareness of more options for green careers that involve STEM skills and the interest andmotivation to explore and later pursue them. We hypothesize that tributes upholding apprenticeship learning in STEM as a favorablealternative to classroom learning need to look beyond the existing consensus around theimportance of the benefits of physical and practical “hands on” experience
” class.Providing students with such a hands-on approach enables them to improve their roboticskills by using rapid prototyping and microcontrollers for performing different roboticapplications.Background In Drexel University’s School of Technology and Professional Studies, manycourses related to robotics, design, and materials are offered to the students in theBachelor of Science in Applied Engineering Technology program. Courses such asRobotics and Mechatronics, Quality Control, Manufacturing Materials, Microcontrollers,and Applied Mechanics can benefit from the laboratory experience in applications ofmechatronics, robotics, and rapid prototyping. As well as helping in the teaching ofvarious courses, such experience benefits students who are
. Anthony is also active in ophthalmology research - having co-formed and currently serving as a Technical Director for the ophthalmology-based medical device design lab (ORBITLab) at the UIC Innovation Center. Anthony holds a B.S. and Ph.D. in Bioengi- neering.Dr. Miiri Kotche, University of Illinois, Chicago Miiri Kotche is a Clinical Associate Professor of Bioengineering at the University of Illinois at Chicago, and currently serves as Director of the Medical Accelerator for Devices Laboratory (MAD Lab) at the UIC Innovation Center. Prior to joining the faculty at UIC, she worked in new product development. She teaches capstone design courses, including the longstanding core senior design sequence and Inter
Award for Innovation in Engineering Education. He also has worked on several research projects, programs, and initiatives to help students bridge the gap between high school and college as well as preparing students for the rigors of mathematics. His research interests include engineering education, integration of novel technologies into the engineering classroom, excellence in instruction, water, and wastewater treatment, civil engineering infrastructure, and transportation engineering.Dr. Jaskirat Sodhi, New Jersey Institute of Technology Dr. Jaskirat Sodhi is interested in first-year engineering curriculum design and recruitment, retention and success of engineering students. He is the coordinator of ENGR101, an
graphical problems in which various graphical principles are synthesized. Semester Explore strategies for stimulating pupil interest, discriminating between mixed ability learners and supporting the development of different abilities in a whole class situation. Consider graphical principles through various media in a pedagogical context and in particular focusing on the scaffolding of pupil understanding. Discuss the design of appropriate tasks to capture graphical capability and understanding. Synthesize experiences and knowledge of graphical principles together with a grounded understanding of cognition in designing suitable assessment strategies. Year 4
forstudents to study digital signal processing (DSP). Hands-on project activities encourage deeperunderstanding of DSP concepts, and are used regularly in ECE481, a course that covers musicsynthesis for engineering majors at Rose-Hulman Institute of Technology. Students implementand experiment with music synthesis algorithms on a computer to gain a better appreciation forrelationships between theory, sound, and visual representation of signals (time series, spectrum,and spectrogram). The LabVIEW graphical programming platform provides extensive supportfor DSP programming and soundcard operations, enabling students to quickly implementalgorithms using graphical dataflow programming. The interactive user interface elements(controls and indicators
-home activityTable 1. Summary of in person and online lab activities.Discussion and Future WorkHere we describe an online cell and tissue engineering laboratory course. We developed at-homelab kits for students to learn basic laboratory skills as well as design and conduct experiments athome. Despite the unique opportunities provided by these activities, we do not believe they are acomplete replacement for in-person lab instruction. The overall student feedback indicated that theaddition of the lab kits was a welcome approach given the limitations of COVID-19 for labinstruction but, nonetheless, we identified several areas for further improvement. Additionalstudent feedback and assessment of learning outcomes will be necessary to continue
real-time DSPlaboratory course that aims to give students hands-on experience with real-time embeddedsystems using Android tablets at an early stage of their careers. The students broaden and deepentheir understanding of basic DSP theory and techniques and learn to relate this understanding toreal-world observations and applications. The students learn industrially relevant skills such asrapid design prototyping in Python and Android development of DSP applications in C++/Javafor computationally constrained mobile devices. The course advances in two phases: structuredlabs and team projects. In the first half of the course, a series of structured labs are provided toimplement and analyze real-time DSP systems that utilize fundamental DSP
American Society for Engineering Education, 2014 Enhancing the Educational Experience in Introductory Engineering CoursesIntroductionThis paper outlines the restructure of the content and delivery of an introductory engineeringseminar course for first-year undergraduate students using core service learning projectexperiences to shape early student learning of engineering design and practice. The First-YearSeminar in Engineering (FYSE) is a critical entry-level course for undergraduate engineeringmajors in accredited degree programs (accreditation by the Accreditation Board of Engineeringand Technology (ABET)) at institutions of higher education. The course is designed to orientnew students to the University and introduce engineering as a
Paper ID #31726Building the Bioengineering Experience for Science Teachers (BEST)Program (Work in Progress, Diversity)Dr. Miiri Kotche, University of Illinois at Chicago Miiri Kotche is a Clinical Professor of Bioengineering at the University of Illinois at Chicago, and cur- rently serves as Director of the Medical Accelerator for Devices Laboratory (MAD Lab) at the UIC Innovation Center. Prior to joining the faculty at UIC, she worked in new product development for medi- cal devices, telecommunications and consumer products. She also serves as co-Director of the Freshman Engineering Success Program, and is actively
laboratory apparatus for advancement of novel electronic devices, in addition to curriculum development for inquiry-based learning and facilitation of interdisciplinary, student-led project design. She emphasizes engineering sustainable solutions from a holistic perspective, incorporating analysis of the full technological life cycle and socioeconomic impact.Dr. Patrick E. Mantey, University of California, Santa CruzMr. Stephen C. Petersen P.E., University of California, Santa Cruz Stephen Petersen is currently Undergraduate Director and a Teaching Professor with the Electrical Engi- neering Department in the School of Engineering at UCSC. Prior to teaching full time, he practiced before the FCC as an independent Consulting
to only one or two laboratory courses. Recent research1-6 on the merit of active studentinteraction with physical models has revitalized interest in the use of such models, not just inlaboratory classes but—more importantly—as an integral part of traditional lecture-basedengineering courses.Couple of years ago, the authors had an opportunity to design and develop a structural testingsystem at the Raspet Flight Research Laboratory at Mississippi State University. In oneexperiment, a whiffletree loading mechanism (WLM), as shown in Fig. 1, was designed and usedfor static testing of a full-scale composite aircraft wing. For simplicity, the wings were mountedupside-down and loaded downward to simulate the lift force distribution. Whiffletree
AC 2007-290: IMPROVEMENT OF SPATIAL ABILITY USING INNOVATIVETOOLS: ALTERNATIVE VIEW SCREEN AND PHYSICAL MODEL ROTATORRichard Onyancha, University of New HampshireErick Towle, University of New HampshireBrad Kinsey, University of New Hampshire Page 12.849.1© American Society for Engineering Education, 2007 Improvement of Spatial Ability Using Innovative Tools: Alternative View Screen and Physical Model RotatorAbstract Spatial ability, which is positively correlated with retention and achievement inengineering, mathematics, and science disciplines, has been shown to improve over the course ofa Computer-Aided Design course or through targeted
, and Computer Aided Manufacturing and Design. Page 7.747.6 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering Education.6. ConclusionThe Manufacturing Processes course described in this paper not only covers theoretical aspectsof manufacturing such as the basic processing techniques and the scientific theory underlyingthose processes, but also includes challenging team-based laboratory projects that help studentsgain experience with selected manufacturing processes. The projects start with making simplecomponents
Paper ID #28938Modifications to a graduate pedagogy course to promote active learningand inclusive teachingMs. Kara Danielle Fong, University of California, Berkeley Kara Fong is a PhD student in the Department of Chemical and Biomolecular Engineering at the Uni- versity of California, Berkeley. She earned a bachelor’s degree in Chemical Engineering from Stanford University as well as a Master of Philosophy in Materials Science and Metallurgy from the University of Cambridge.Dr. Shannon Ciston, Molecular Foundry, Lawrence Berkeley National Laboratory Shannon Ciston is the User Program Director at the Molecular Foundry at
represent some of the emerging areas: polymer processing, foodprocessing, environmental reactor design, fluidization, membrane separation. These experiments havebeen utilized by chemical engineering faculty at a unique hands-on industrially integrated NSF workshopon Novel Process Science and Engineering conducted at Rowan University. We have integrated theseexperiments into our curriculum so that students can see chemical engineering principles in action andtherefore improve the quality of education. Introduction Hands-on laboratory experience is a critical element in undergraduate chemical engineeringeducation [Par94, Gri97]. Chemical engineering programs are often confronted with how tomore
Page 8.1032.1students in learning Mechanics of Materials. The design, construction, and calibration of a Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Educationsimple strain-gage based liquid densitometer integrated fluid and solid mechanics for thestudents3. Szaroletta enhanced the traditional C-clamp combined stress laboratory experiment byadding several strain gage instrumentations; the result was expanded learning opportunities forthe students4.A basic Mechanics of Materials course normally deals with a combined loading topic in theanalysis of stresses and strains produced by three fundamental types of loads
engineering principles and design into existing science classes that can becontinued year after year and last through and beyond the training period 6. Some of the keyfactors identified for effective professional development include: engaging teachers in practicingconcrete tasks related to teaching, assessment, and observation of learning; drawing uponteachers' questions, inquiry, and experiences; including time for collaboration, sharing andexchange of ideas and practices; building on teachers' current work with students; and providingmodeling, coaching, and problem-solving around specific areas of practice.The planning of professional development programs that effectively lead to desired teachingpractices is not a simple process. Too often, short
built and a digitizing arm was utilized for the accuratecollection of key points before and after operation scenarios. A group of four students receivedthe experience of working on an industry-sponsored project, where design, implementation,redesign and adjustment phases were included. The results from this project demonstrate theimportance of validation of implemented software-based tools in order to consider them usefulones.MethodologyThis project is a collaboration between our College of Engineering and Applied Sciences(CEAS) and industry. The main objective of the collaboration was the development of a CAD-based tool for the routing of flexible components, specifically the brake hoses. As one of theimportant steps in such development and
How can user-centered design help us think about the challenges of engineering education? Jennifer Turns, Matt Eliot, Steve Lappenbusch, Roxane Neal, Karina Allen, Jessica M. H. Yellin, Beza Getahun, Zhiwei Guan, Yi-min Huang-Cotrille Laboratory for User-Centered Engineering Education (LUCEE) University of WashingtonAbstractBecause engineering education is a complex endeavor, tools that help educators understandengineering education can be valuable. User-centered design is a conceptual tool that educatorscan use to understand current projects and imagine new opportunities. This paper focuses on theconcept of user-centered design and its application
licensure. Dr. Mentzer’s educational efforts in pedagogical content knowledge are guided by a research theme centered in student learning of engineer- ing design thinking on the secondary level. Nathan was a former middle and high school technology educator in Montana prior to pursuing a doctoral degree. He was a National Center for Engineering and Technology Education (NCETE) Fellow at Utah State University while pursuing a Ph.D. in Curriculum and Instruction. After graduation he completed a one year appointment with the Center as a postdoctoral researcher.Dr. Dawn Laux, Purdue University Dawn Laux is a Clinical Associate Professor in the Department of Computer and Information Technology (CIT) at Purdue University
indirect measure, a rubric survey based on the contents of the SEEprogram is distributed to students to assess the effectiveness of this program.Keywords: MATLAB, C++, Student Learning Outcomes1. IntroductionThe main objective of the Summer Engineering Experience (SEE) program is to provide studentswith the basic computational and hands-on project-based learning in numerical analysis withMATLAB and C++ programming, aerodynamics, bridge truss design & analysis, technicalwriting and presentation. This program not only introduces students to basic skills in developingsolutions to engineering problems, but also enhances their ability to develop programs tofacilitate the solution of a physical system [1], [2].The SEE program is designed to enhance