Technology (ABET) undergraduate programs offered nationwide thatrequire students to conduct laboratory sessions onsite. For some students this arrangement maybe inconvenient, or in some cases, impractical. Furthermore, there are many challengesassociated with teaching electrical engineering online courses because of the interposition ofheavy equation use and interactivity required.Over the past three years, we have been investigating the use of inexpensive, highly portableinstrumentation to facilitate our lab requirements. As a result of this enabling technology, anonline program targeted toward completing the second two years of an undergraduate electricalengineering degree is being piloted at our institution. Nearly 109 students have participated
singlesetpoint for establishing benchmarks and the ability to run a design of experiments. A table isdisplayed that contains the students’ results with an option to export the results to MicrosoftExcel. The web-based module was written in Netbeans and utilizes the Glassfish applicationserver. A MySQL database maintains the Mouse Factory information and student records. Amajor advantage of this approach is that Netbeans, Glassfish and MySQL are all open-sourcesoftware packages.Figure 2. Bill of Materials Page 22.1383.4 Page 22.1383.5Figure 3. Critical Point - CoverDOE Lab OneThe first DOE laboratory allows students to
Paper ID #20504MAKER: Using 3D Printed Experimental Design and Measurement of Inter-nal and External Flow Convection Coefficient Using 3D Printed GeometriesMr. Michael Golub, Indiana University-Purdue University, Indianapolis Michael Golub is the Academic Laboratory Supervisor for the Mechanical Engineering department at IUPUI. He is an associate faculty at the same school, and teaches part-time at two other colleges. He has conducted research related to Arctic Electric Vehicles. He participated and advised several student academic competition teams for several years. His team won 1st place in the 2012 SAE Clean
Prototyping CourseAbstractManufacturing and Industrial Technology (MIT) is one of the well-known majors at the Collegeof Engineering of Tennessee Tech University (TTU) located in Cookeville, TN. MIT studentsgraduate with a BS in Industrial Technology and take 121 credit-hour coursework to completetheir degrees.During the Fall 2007 semester MIT4450--Rapid Prototyping course has been re-structured tooffer fully online laboratory component for students’ practice. Students were able to prototypetheir parts through remotely accessible Rapid Prototyping Laboratory.Web-enhanced MIT4450 course students were also able to interact with students in WesternNevada College and prototype joint project parts with the campus engineering students. AnotherK-12 school
fimdamentals of a 16-bit microprocessor. In the lab for; the second course, each student designs and implements a complete 8086-based microcomputer board. Once~ this prototype board is implemented, the student can use it for various microprocessor-based applications. ~A microprocessor development system designed to provide up-to-date development tools for the lab is also described. This development system is implemented as a network consisting of six stations, each equipped with a PC, an emulator, a logic analyzer and an EPROM programmer.!I INTRODUCTION For many microprocessor courses, laboratory projects are often limited to assembly language programming. A main reason is that software
education experiments, describing the ongoing challenge of implementing anexperimental protocol in a classroom environment, the expansion of the experimental protocol toinclude other test sites, and how formative assessment shaped the educational experiment.IntroductionThe goals and methods of Clemson’s EXPerimental Engineering in Real-Time project have beendescribed in detail in our earlier work.1,2,3 We seek to use real-time sensors in the classroom toprovide quicker feedback to students during hands-on laboratory modules. To establish theefficacy of using the real-time sensors to improve student learning, an educational experimentwas carefully designed to evaluate the laboratories in actual classroom situations, when used byvarious instructors
. Critical thinking as applied to course workStudents should understand the scientific principles in a given course. It will help them noticediscrepancies between the theory and practice when they do occur. This will promote learning,but only when students pursue the explanation for the discrepancy. Was it due to their lack ofunderstanding of the principles, was there an error in the experiment or application, or, was itsimply due to typing error in the textbook? Students often expect excellence from textbooks,other course materials, laboratory equipment, and often are taken by surprise when the outcome isnot what they had expected. This is especially evident in laboratory exercises. There are often afew students who blame their problems with
the Sibley Schoolof Mechanical and Aerospace Engineering at Cornell University and the Hospital for SpecialSurgery (HSS) affiliated with the Weill Medical College of Cornell University. The main goalwas to expose Cornell engineering students to research and clinical practice in a hospital setting.The Immersion Terms took place at HSS in New York City. Students from the graduate fields ofMechanical and Biomedical Engineering at the main campus spent either 6 weeks (doctoralstudents) or 3.5 weeks (masters students) at the hospital. The students participated in orientation,courses on musculoskeletal mechanics, independent studies, observation in the operating room,tours of laboratory research facilities, and multiple seminars and meetings. Based
both laboratory and real-world settings. This concept is an inversion of the traditional laboratory curriculum paradigm.The current situation is that freshman programs focus either on a design project or discipline-specific experiments that may not be cohesively integrated. In real-world settings engineerswork in multidisciplinary teams on a variety of complex problems. The fundamental principlesof measurement and their application are crucial to the solution of these problems.IntroductionThe College of Engineering at Rowan University was created through a $100 million gift fromHenry and Betty Rowan in 1992. The College of Engineering’s key features includecollaborative teamwork in inter- and multi- disciplinary laboratory and
, Bridgestone/Firestone Trust Fund and Factory Mutual Research (1) was chosen.Four suggested topics were offered:1. Guarding of PTO's (Power Take Offs),2. Guarding of infeeds of harvesting equipment,3. Use of high strength composites in removable guards for equipment exposed to rugged field conditions; and,4. Develop a system that permits a wider range of protected motion than conventional seat belts for operators of tractors equipped with ROPES (Rollover Protection Structures).At the first meeting of the 1996 Spring Mechanical Engineering laboratory course anintroduction to team and team member dynamics was presented following which each ofthe four teams was directed to select a topic. Outside the laboratory was a large industrialFord tractor
electronics course Elizabeth A. Thompson, Ph.D. Department of Electrical & Computer Engineering Purdue University Fort Wayne Fort Wayne, IN 46805 thompsoe@pfw.eduAbstractAn introductory power electronics undergraduate level course at Purdue University Fort Waynehas been upgraded, incorporating theoretical and simulation analyses for comparison to actualmeasured values obtained from a Lucas Nuelle Power Electronics and Drives 300 W trainingsystem. Lecture and laboratory content have been revised to more fully integrate lectures withlaboratory assignments. Close agreement between
themanufacturing process which can produce the drug at sufficient quantity and quality to use as apharmaceutical product. Both research and development rely heavily on using laboratoryexperiments to optimize the drug design and the manufacturing process. Therefore, the courseactivities were designed to build students’ R&D skills including designing experiments,developing laboratory protocols, analyzing data, optimizing a process, and making decisionsbased on data.Incorporation of experiential learning-focused activities into engineering courses is well-documented in the literature. McKenna et al. developed industry relevant classroom activities atNorthwestern including both hands-on experiments and team experiences [1]. Ripoll et al.focused on
Design, Construction, and Testing of a Prototype Test Unit for “Impact of a Jet” Experiment through Senior Design at Southern Arkansas University Lionel Hewavitharana, Mahbub Ahmed, John Hauver, Joseph Lonigro and Allan Derrickson Department of Engineering and Physics Southern Arkansas University Magnolia, AR 71753Abstract"Impact of a Jet” experiment is a commonly offered laboratory exercise in most undergraduateengineering programs. The equipment available in the market for this experiment can beexpensive despite the fact that no sophisticated technologies are involved
. Page 11.113.1© American Society for Engineering Education, 2006 A Review of the Current Status and Challenges of Virtual ExperimentationAbstractVirtual experimentation generates reactions of great enthusiasm and trepidation amongengineering educators. Many educators see wide ranging applications of these techniques withadvantages in terms of learning pedagogies, equipment costs, and online education. However,there are several well-founded concerns such as the realism of the data and the impact on studentoutcomes. This paper will review the history and several current examples of virtualexperimentation, including the author’s own experience developing a virtual refrigerationexperiment. Learning objectives for laboratory courses defined by the
to help students gain a better understanding ofhow the knowledge are useful in real-world situations. Particularly, nine simulation labs and twosimulation projects were used in the class of summer 2020.In order to evaluate the effectiveness of the designed simulation labs and projects in helpingstudents to grasp and then apply the control concepts and ideas, surveys were conducted in thesummer 2020 class to collect students’ opinions and feedbacks. Among the 27 participatingstudents, 81.4% of students “agree” or “strongly agree” that simulation laboratory exercisesincreased their interest in the subject, 85.1% of students “agree” or “strongly agree” thatsimulation laboratory exercises helped them better to learn course content, and 77.7% of
AC 2007-1528: A COLLABORATIVEUNIVERSITY-COLLEGE-INDUSTRY-GOVERNMENT TECHNOLOGYTRANSFER PROJECTAaron Ball, Western Carolina University Dr. Ball is an Associate Professor of Engineering and Technology within the Kimmel School at Western Carolina University. Dr. Ball served as the PI on three year funded project by Oak Ridge National Laboratory to help develop a new product with the collaboration of a College-Industry-Government partnership.Duane Dunlap, Western Carolina University Dr. Dunlap is Professor of Engineering and Technology within the Kimmel School and has the honor of serving as the Director for the Kimmel School and Associate Dean for the College of Applied Sciences at Western
Education in Software Defined Radio Design Engineering Abstract— Software Defined Radio (SDR), an interdisciplinary emerging technology,presents new challenges for communications engineers and engineering educators. In SDR,signal modulation and information coding are defined in the system's software, nothardware. The authors have incorporated SDR design into their respective curricula bothto support the growing demand for SDR engineering and to teach widely applicablesystems engineering concepts. SDR-oriented curricular changes include new courses,laboratories, and software design tools. Software radio design is taught as aninterdisciplinary systems engineering undertaking, emphasizing the importance of
technology program graduates. This paper studies industry need for graduate knowledge and skill in fluid mechanics area and presents an ongoing curriculum reform process to transform an existing fluid mechanics course to a fluid power course. A multi-mode student learning process is developed and course is reformed to support an interactive pedagogical methodology. Beyond current teaching methods, tools are developed to foster a flexible inductive learning through hands-on applications. A multipurpose laboratory equipped with fluid power process, sensors, data acquisition system, and application programs is being developed. A series of laboratory practices based on use of fluid mechanics principles in industrial applications would
vehicles and the creation of a GPS based navigation system to assist students with visual impairments navigate and orient themselves to Purdue’s campus. c American Society for Engineering Education, 2017 Transformation of an Introduction to Microcontroller CourseAbstractThis paper outlines the curriculum changes made to a freshman introduction to microcontrollercourse in response to several outside factors including the overall reduction of credit hoursavailable for a degree, the total number of credit hours available per course, and the various callsto move away from standard laboratory experiences in favor of more discovery basedexperiences. The course has undergone a transformation from a standard two
published more than 100 papers in journals and conferences. He has served as Chair of Acoustic Communication Interest Group of IEEE Technical Committee on Multimedia Communications. His research has been supported by the National Science Foundation, Air Force Office of Scientific Research, Air Force Research Laboratory, Office of Naval Research, and NASA. His work on software defined radio implementation of cognitive radio won the Best Demo Award at IEEE Globecom 2010.Prof. Bin Wang, Wright State University Prof. Bin Wang earned his Ph.D. from the Ohio State University in 2000. He joined the Wright State University in September 2000, where he is currently full professor of computer science and engineer- ing. His
Sciences MethodAbstractMany educators acknowledge that the millennial generation of students learns like no other, yetlittle has been done to alter laboratory instruction in response to this generational shift. Further,most laboratory courses use a traditional, formal style of “step-by-step” instruction. This“cookbook” instructional pedagogy is based on the lower levels of Blooms Taxonomy and oftenleaves little to no impact on achieving higher levels of student learning. Data shows thatstudents who participate in “cookbook” instruction are unable to apply lab concepts accuratelybeyond the original lab and many students do not retain laboratory skills they learned in the long-term. This work involves the use and evaluation of the case study
. Olowokere1 and Abayomi Ajofoyinbo2 1,2 Department of Engineering Texas Southern University, Houston, Texas, USA Email: olowokeredo@tsu.edu1; ajofoyinboa@tsu.edu2;AbstractIn the recent literature, researchers have investigated the mismatch betweenteaching and learning styles with different research objectives. This paperpresents a framework for integrating intelligent sensor real-time measurementdata into engineering education for innovative practice-oriented learningenvironment. In this integration framework, intelligent sensors are deployed onLocal Area Networks (LAN) in engineering laboratories to measure physicalquantities that may be used for classroom
Session 2359 Problem Based Learning of Data Acquisition and Computer-Based Control Applications in MET Courses Jan T. Lugowski, Steven E. Widmer Purdue University1. IntroductionThis paper discusses how problem-based learning and computer-based applications can be usedto enhance the students’ learning experience in two 300-level courses in controls,instrumentation, and fluid power. MET 382 Controls and Instrumentation for Automation is athree credit hour course with a two-hour laboratory. Half of the time is allocated for dataacquisition, and half for control
knowledge in power areas, as well as studentsfrom another universities and colleges pursuing power education. Concept of virtual laboratory isalso introduced here and provides addition flexibility in the class’s offering strategies. Due to therapid changes in the technological world, faculty involved in teaching the proposed courses mustbe informed of advances in technology currently used in the industry. On the other hand,industry wants to have qualified and well-educated employees who are ready to implement theirknowledge on day one of their employment. As a result, the initiative of power engineeringcurriculum development described in this paper is industry-driven.IntroductionMany electrical engineering technology programs have already started
grouped into an instrumentation course and overall objective of this paper is todescribe the development of laboratory modules for measurement and control and implementation ofthe same through the course “Instrumentation in Biological Systems Engineering”. This is a core BSEcourse that all BSE students will take with an average the enrollment of 30 students. Currently MATLABis being taught at freshmen (Introduction to Engineering) and sophomore years (Numerical methodscourse). As MATLAB is being considered as one of the standard software tool in Engineering programs, itwould be logical to use the same for the instrumentation course as well, instead of learning newsoftware. MATLAB can be used to communicate with data acquisition and control to
c American Society for Engineering Education, 2012 Teaching Digital Communication using LabVIEWAbstractIn response to the needs of the power industry, the Electronics Engineering Technology programat Texas A&M University has been revamping the instrumentation course to focus on digitalinstrumentation, in particular, digital communication protocols. Modbus was selected for itssimplicity, open architecture, and wide use in industry as the communication protocol for twocourse projects in an instrumentation course.LabVIEW was extensively used in the laboratory sessions, which better prepared students for thecourse projects. Two course projects were designed to familiarize the students with virtualinstrumentation, data
Session 3148 Teaching and Curriculum Development of Electronic Classes in Malaysia Roman Stemprok University of North Texas, Department of Engineering Technology Denton, TexasAbstractElectronics classes with comprehensive laboratory training components were developed at thenewly established University at Batu Pahat in Malaysia. The students had previously earnedtheir bachelor’s degrees and were pursuing teaching positions at new institutions being built inMalaysia’s rural areas. The curriculum development included process/computer control and realtime
engineering students continues to be a critical concern across the engineeringdisciplines1-3. The typical engineering program begins with immersion of the student into thestudy of calculus. While this calculus content is mandatory to progression in the engineeringdisciplines, the abrupt transition from high school to Calculus I can be a deterrent to manystudents. Recognizing these facts, in fall 2009 the Oklahoma Christian University engineeringprograms implemented a new required freshman mathematics course, ENGR-1113 Foundationsof Engineering Mathematics, which precedes Calculus I. This class was patterned on the pilotprogram at Wright State University entitled “A National Model for Engineering MathematicsEducation” 4, 5. Both lecture and laboratory
AC 2011-1651: CRASH SAFETY IN THE INTRODUCTORY PHYSICSLABDaniel Ludwigsen, Kettering University Dr. Daniel Ludwigsen pursued research in Musical Acoustics while completing the Ph. D. in Physics from Brigham Young University. After joining Kettering University in support of the acoustics specialty within Applied Physics, Dr. Ludwigsen has broadened his professional interests to include physics education research and instructional design. In addition to an overhaul of the introductory physics laboratories, partially supported by NSF CCLI funding, Dr. Ludwigsen has written two courses at the sophmore/junior level, and coauthored a senior level laboratory in acoustics. He is also interested in developing materials
specifically trained for renewable energy industries. In this National ScienceFoundation (NSF) sponsored project, state-of-the-art equipment and laboratory materials aredesigned and developed for the engineering technology students to get exposure to the relevanttheories and get hands-on skills on the functional knowledge of solar photovoltaic (PV) systems.The new course “Solar PV Planning and Installation” and the associated laboratory experimentsare designed, developed, and continuously improved in collaboration with the external advisorycommittee (EAC) including industrial partners. This new course provides the students with thepractical and experimental skills required by the industry jobs in the field of solar PV design,installation, and