demonstration board. The paper also discusses whywe chose an assembly language over a higher level programming language for the introductorycourse and the set of laboratory exercises that guide the student through the learning process in athird semester engineering technology course.Goal and SituationThe goal is to teach an Introduction to Microprocessors course to third semester EngineeringTechnology students in a way that will catch their interest and provide a background on whichsubsequent courses can build. At Middlesex County College, Introduction to Microprocessors isa 3 credit course taught in a 14 week semester. Classes meet for 2 lecture hours and 3 laboratoryhours each weekMCC previously used a lab manual developed by Prof. Steve Foster
scope through scale-‐up of laboratory work to a biodiesel processing plant while incorporating whole systems thinking of sustainability. 2. Introduction: Well-‐designed first year experience courses are mainstays in the curriculum for freshman engineering students, as well as for freshmen in other fields. First year courses are building blocks in helping freshmen navigate through
scope through scale-‐up of laboratory work to a biodiesel processing plant while incorporating whole systems thinking of sustainability. 2. Introduction: Well-‐designed first year experience courses are mainstays in the curriculum for freshman engineering students, as well as for freshmen in other fields. First year courses are building blocks in helping freshmen navigate through
322 Low-Cost Take-Home Experiment on Classical Control Using Matlab/Simulink Real-Time Windows Target Eniko T. Enikov, Vasco Polyzoev, Joshua GillAdvanced Micro and Nano Systems Laboratory, Department of Aerospace and Mechanical Engineering, University of ArizonaAbstractThis paper presents a low-cost hands-on experiment for a classical undergraduate controls courseoffered on behalf of non-electrical engineering majors. The setup consists of a small DCelectrical motor attached to one of the ends of a light rod. The motor drives a 2-in propeller andallows the rod to swing
CourseThe Applied Fluid Mechanics course (MET 4100) is an upper division core course in the METprogram and the second in the sequence of fluid mechanics coursework, following Fluid &Hydraulic Mechanics (MET 2050). This four-credit hour (ch) course consists of a 3ch lectureand a 1ch laboratory. During the Fall 2021 semester, the course was offered as a face-to-face(F2F) on campus. To increase the accessibility to the lectures for those students not able to attendthem in person due to COVID issues, the authors developed the course more like a blendedexperience than a F2F course, using the Blackboard platform to post lectures, course materials,instructional aids, and assignment submissions. Simultaneously, all the lectures were
Paper ID #36580[redacted]: Embedding process safety modules within coreCHE coursesChris Barr (Undergraduate Instructional Laboratory Supervisor) Chris Barr is the CHE lab manager at University of MIchigan. Previous to Michigan, Chris has taught or managed CHE labs at University of Toledo, where he earned his Ph.D, and Trine University, where he earned his Bachelor’s degree. As the lab supervisor, Chris’ main responsibilities focus around the successful operation of the undergraduate chemical engineering laboratories. This includes (but is not limited to) chemical safety within the laboratory, ensuring equipment is
Department at Trinity University is a unique one. We offer a broad-based curriculum with a grounding in the “fundamentals” of electrical, mechanical, and chemicalengineering, along with some specialization through disciplinary electives. Students earn a B.S. inEngineering Science, and customize their program with help from their academic advisor. Moredetailed information on the program is given in a paper by Uddin1.The “fundamentals” courses, required of all engineering majors, include (in the electronicsportion) Electric Circuits, Electric Circuits Laboratory, Electronics I, and Electronics I Proceedings of the 2005 ASEE Gulf-Southwest Annual Conference Texas A&M University – Corpus Christi
-inmultimeter also will not be damaged or have a fuse blown if used incorrectly. Additionally,circuits in Tinkercad can be named, saved, and shared. Figure 3: Using the multimeter in Tinkercad.3. Assignment DescriptionsThe Tinkercad environment was employed in ENGR 111 for two course meetings in Spring 2021for the purposes of circuitry instruction: “Laboratory Preparation” and “Introduction toCircuitry”. Both classes were taught in previous iterations of the course utilizing physicalcircuitry components. However, in the transition from typical to remote instruction, these labscontinued to include the same circuit-building activities. Regardless of iteration, these classeswere both performed by students in groups of 3-4.The
to both the lecture and laboratory componentsand the focus of the new course is on improving of the course. We modified the lectures to focus on thestudents’ performance and retention in calculus, we mathematics topics emphasized in the Wright Stateevaluated the effectiveness of the new course by curriculum, including trigonometry, vectors, solvinglongitudinally tracking students’ success and persistence systems of equations, and derivatives and integrals. We alsoin subsequent engineering mathematics courses. The incorporated using Matlab, with an emphasis on using it as aresults of these analyses show that students’ tool to solve engineering mathematics problems
semester of the course bynot only traditional means common in many surveying courses and but also new assignments andactivities. The current textbook used in the course covers the subject matter in the secondchapter. An active classroom exercise is used to bring the experience of the subject matter intothe classroom when covering this chapter. Laboratory exercises for the course still utilize thesteel tape. Thus, error corrections for temperature can be used to reinforce the concept of error.An Internet investigation assignment is used to get students to search beyond the class textbookand reinforce the types of error that occur with EDM and GPS equipment. Level survey workboth in the classroom and laboratory always involve “closing the circuit
campus wide network that connects five research laboratories of the Engineering Proceedings of the 2008 ASEE Gulf-Southwest Annual Conference The University of New Mexico – Albuquerque Copyright © 2008, American Society for Engineering EducationTechnology Department that includes the Wireless and Optical Networking Laboratory (WON) andthe new UH AT&T Technology Laboratory, serves as our learning environment. Throughdemonstrations, experimentation, research and design procedures, and interaction withtelecommunications and networking experts, students are provided with a real workingenvironment that enhances the learning experience and promotes teamwork and
design and embedded system-on-chip (SoC)design.Background and MotivationA sequence of four graduate level courses was chosen for this analysis for three reasons: 1) thedependencies the courses have on laboratory based instruction, 2) applicability to thesemiconductor industry and 3) each course builds upon the previous course culminating in acapstone course that unifies the systematic design competencies that are needed to build complexsilicon systems. These silicon systems are composed of both hardware and software componentsthat implement complex algorithms and functions, and these functions determine thecompetencies required by the student.The four courses in the sequence are described in detail in the next section and include: 1) Basic
is offered every third semester at present. This is a laboratory-oriented course in which the students workas a team to design and develop working automated manufacturing cells involving machining and/or assemblytasks. Students are required to design and build the appropriate fixtures, robot grippers, electronic systems,etc. and write the complete protocol and software for the machining/assembly operation. In the early weeks ofthe course, the laboratory work involves primarily “demonstration” experiments to acquaint students with thelarger hardware available in the laboratory. This equipment includes robots, machine tools and programmablecontrollers, as well as the appropriate programming and control software needed to utilize them
topresent to his uncles, but showed it first to his father. Daniel’s response was to fund thenew program himself. On June 15, 1925, Daniel Guggenheim announced his gift of$500,000 to NYU for a laboratory building with a wind tunnel, a propeller laboratory andother labs, as well as hiring laboratory assistants. An oversight committee was formedby Chancellor Brown and Orville Wright was selected as its head. On October 23, 1925ground was broken on the NYU Guggenheim School of Aeronautics, which opened ayear later. The Daniel Guggenheim Fund for the Promotion of Aeronautics, under HarryGuggenheim’s direction, went forward with a plan to fund $2,500,000 in gifts to assist inaviation developmentvii. Following the NYU gift, the plan was to expand
processesto produce accurate computer models for graphic visualization and communication.One laboratory section of the course was the experimental group and had access to theremediation materials, including a workbook (Introduction to 3D Spatial Visualization: AnActive Approach [1]) and practice website (VIZ; developed at Penn State Erie, The BehrendCollege [2]). Other laboratory sections made up the control group and did not have access to theadditional materials. All students took the Purdue Spatial Visualization Test-Rotations, MentalCutting Test [3], and the Modified Lappan Spatial Visualization Test [4] before the visualizationmodules were taught. Students then took these same tests at the end of the visualizationmodules. The pre- and post
grant on designing remote laser laboratory for teaching techniciansDon Engelberg, Queensborough Community College Don Engelberg is a Professor of Physics at Queensborough Community College of the City University of New York. His research interests include nuclear physics, laser physics, and education. He was awarded several NSF grants and is currently serving as PI on a NSF grant in laser physics education.Alex Flamholz, Queensborough Community College Alex Flamholz is an Assistant Professor of Physics at Queensborough Community College of the City University of New York. His research interests include bio-physics, electronics, and education. He worked in photonics research and
. Lab reports (the most relevant evidence)had greater scope as measured by a created metric. An added benefit was an increased use of thefoundry and interaction between the programs.IntroductionMotivations for developing alternative resources fall into two categories. First, there is neverenough money to satisfy typical requests for support. Second, there may be resources next doorthat can be used with improved awareness and cooperation. As a subject of interest, the METProgram has a Heat Transfer course that has various associated laboratories. As discussed byFeisel and Rosa, engineering laboratories support education ‘of nature that goes beyond meretheory”1. Our Heat Transfer laboratory concerns a comparison of analytical prediction of
from 2002-2005. A second award for the period of 2005-2008 was just received. This award hasenabled us to support many educational activates from vanguard classroom instruction, tolaboratory enhancements, to research activities at the graduate and undergraduate levels.Both traditional radiochemistry and advanced topics in nuclear instrumentation have beensupported.IntroductionIn the last two decades there has been an increased realization that training of scientistsand engineers in radiochemistry and nuclear chemistry is of vital significance to the goalsof national laboratories, industry, and hospitals and medical institutions. More recently,the aims of the Department of Homeland Security have also included radiological (dirtybomb) scenarios
experience, he has taught many different engineering and technology courses at undergraduate and graduate levels. His tremendous re- search experience in manufacturing includes environmentally conscious manufacturing, Internet based robotics, and Web based quality. In the past years, he has been involved in sustainable manufacturing for maximizing energy and material recovery while minimizing environmental impact.Miss Ieva Narkeviciute, Stanford University Ieva Narkeviciute received her B.S. (2012) in Chemical Engineering from the University of Massachusetts Amherst where she worked in the laboratory of Prof. George Huber on biomass conversion to biofuels. She received her M.S. (2015) in Chemical Engineering from Stanford
taught many engineering courses including, but not limited to, Linear Circuit Laboratory, Electronics Laboratory, Electromagnetics, Communication Theory, and Signals and Systems. Dr. Fenner is an accomplished researcher and has published several journal articles and conference papers. She has also served as a reviewer for the IEEE Transactions on Microwave Theory and Techniques and IEEE Transactions on Antennas and Propagation. She has served as the faculty mentor for the Loyola section of the Society of Women Engineers and the Women in Engineering affiliate of the Baltimore IEEE.Dr. Peggy ONeill, Loyola University Maryland Peggy O’Neill, PhD, a professor of writing and Associate Dean of Humanities at Loyola
enables students to perform experiments 24/7from any location thus maximizing the utilization of the equipment and providing schedulingflexibility to the students. Student laboratories for wireless devices can be problematic ininstitutions that offer wireless network access. This production wireless environment can bedisrupted or even disabled if a student misconfigures the laboratory equipment.This paper describes our success with the adoption of an isolated, remotely-accessible faradaycage that houses wireless equipment, permitting even the most invasive wireless projects to beperformed in an area that offers production wireless network access. Our lab isolation isoptimized for the ISM 2400-2483 MHz frequency band thus providing isolation for
Paper ID #7026Illustrating Rotating Principal Stresses in a Materials Science CourseProf. Somnath Chattopadhyay, Georgia Southern UniversityDr. Rungun Nathan, Penn State Berks Dr. Rungun Nathan is an associate professor in the division of engineering at Penn State Berks. He got his B.S. from University of Mysore, DIISc from Indian Institute of Science, M.S. from Louisiana State University and Ph.D. from Drexel University. He has worked in the area of Electronic Packaging in C- DOT (India) and then as a Scientific Assistant in the Robotics laboratory at Indian Institute of Science, Bangalore, India. He worked as a post
the department visit, the students participate in two-or three hourhands-on experimental laboratory classes. The truss bridge laboratory is a part of this onecredit hour course offered to the freshmen engineering students by the Civil and CoastalEngineering department. The purpose of the laboratory is to familiarize students with theconcept, theory and practical side of the civil engineering and is focused on aidingstudents in the process of making an informed decision for their futures. This paper isfocused on procedure of the laboratory as well as how the resulted data can be utilized inreal-life projects. After each team of 4-5 students build their truss, the truss is loaded untilit fails. Record of the failure load, score, and final score
challenges in the pharmaceutical industry. In an effort to engage thesurrounding communities, New York City public and private high school students wereintroduced to the field of pharmaceutical engineering over the course of six weeks. Through theuse of lectures, teamwork activities, and laboratory experiments, students learned about thefundamentals of oral solid dosage forms, drug dissolution, and experimental design. Examples ofexperiments performed include building their own “in-house” drug dissolution devices, studyingthe effect of impeller geometry and velocity on dissolution rates, and obtaining drug dissolutionprofiles for various oral solid dosage forms containing Ibuprofen using UV-Vis spectroscopy.Students were also trained in
areevaluated by some form of a final report. In the traditional civil engineering curriculum, undergraduate students take courses withboth lecture and laboratory formats. While the lecture courses provide the opportunity forstudents to absorb new information, the purpose of a laboratory is to expose students to thephysical problems associated with a course and reinforce course content. The traditional type oflaboratory has well-planned experiments, typically containing step-by-step guides leading thestudents through each experiment. Generally in groups of four or five, students in-turn conductthe experiment, regurgitate the results, and prepare a laboratory report, arguably fulfilling ABETstudent outcome (b) “an ability to design and conduct
. Page 24.362.2The process of solving a mechanical engineering problem has three components: problemdefinition, developing a sketch, and introduction of the equation[4, 5]. Educators developed andimplemented simulations, animations; set up remote laboratories; and recorded videos to conveythis process – and its components – effectively in on-line settings. For example, virtual andremote laboratories developed for different courses around the world – including virtuallaboratory for teaching robotics[6]; virtual learning environment for the laboratory component ofmechanisms and machine dynamics course[7, 8]; remote laboratory for circuit theory, sensortechnology, and oscilloscope and function generator course[9]; and instrumentation platform
learning situations that are familiar to students as the context for virtual science, engineering and technology investigations. He also pro- posed and implemented the pioneering concept of integrated adjustable virtual laboratories. To facilitate these methodologies for academic education, corporate and military training, his company developed new ground-breaking e-learning solutions, as well as relevant assessment and authoring tools. Dr. Cherner holds an MS in Experimental Physics, and Ph.D. in Physics and Materials Science. He published over 90 papers in national and international journals and made dozens presentations at various national and international conferences and workshops. Dr. Cherner has served as a
sand casting, and test the part incompetition with other students.Equipment and Materials 1. Solid modeling software (Solid Works® is what MEEN at TAMU has available.) 2. Rapid Prototyping Facility (A Z-Corporation unit is what MEEN at TAMU has available.) 3. Casting Facility (We have a green sand casting laboratory.) 4. Milling Machine available to prepare part for mechanical testing. 5. Mechanical testing machine.Introduction With the impetus from ABET, the faculty, and former students to include more designwithin the curriculum, the Materials Division within Mechanical Engineering was looking forways to do this in a creative manner. Students many times see activities within separate classesas disconnected from other
environments • Utilizing emerging technologies such as muscle wires, air muscles, micro- and nano- controllersInitially ONU technology and engineering student body was chosen as the main target audiencesince the focus areas were mechatronics and robotics. However, art majors and minors did showstrong interest during promotional activities. They were subsequently recruited. Students who arenot in the honors program were also allowed to register depending on the number of availableseats within fifteen seat capacity limit of the Honors Program.This paper elaborates on the HONR 218 – Animatronics course through its description,objectives, curriculum, and delivery structure including laboratory assignments. Examples ofstudent work are also
American Society for Engineering Education Annual Conference & Exposition Copyright À 2005, American Society for Engineering Education Session [2]. The student will demonstrate competencies in experimental testing, error analysis, laboratory safety, data acquisition, instrumentation and laboratory report writing. [3]. The student will demonstrate computer competency and an intelligent use of computers as a tool for developing solutions to engineering problems.The objective of each course has to be designed to meet the overall program objective and bemeasurable by criteria (a-s