Paper ID #24888Lessons Learned from Remote Access 3-D Printing Machine for Manufactur-ing EducationDr. Sheng-Jen ”Tony” Hsieh, Texas A&M University Dr. Sheng-Jen (”Tony”) Hsieh is a Professor in the College of Engineering at Texas A&M University. He holds a joint appointment with the Department of Engineering Technology and the Department of Mechanical Engineering. His research interests include engineering education, cognitive task analysis, automation, robotics and control, intelligent manufacturing system design, and micro/nano manufactur- ing. He is also the Director of the Rockwell Automation laboratory at Texas
enrolled students from 16 different states and 2different countries, allowing for a mixture of cultural and education levels. Each course is aperiod of 2-3 weeks where the students attend lessons Monday-Friday. Students have the optionof enrolling in multiple courses as scheduling of the courses permits. Each course costs $1,250which pays for the instructor’s time, laboratory supplies, teaching assistants, and a fee to theprograms maintenance and support.The 2016 summer program has a total of 8 courses being offered with a maximum enrollment of16-20 students depending on the course: • CENG 1015: Princples of Chemical Engineering with Lab • CMPS 1005: Python Programming: Introduction to Computer Science • EBIO 1231: Exploring Animal Behavior
image processing” book starts with the assumption that the reader hasaccess to an image. It generally does not cover on how to select/develop an imageacquisition system for a given application. This gap was addressed in this course.In summary, this designed course designed was to cover the four key segments ofcomputer vision systems, i.e. a) image acquisition, b) image processing, c) imageanalysis, and d) image understanding (pattern recognition). Table 1 illustrates thefour learning objectives of the course and their associated Bloom’s taxonomy. Toachieve these learning objectives, active teaching and learning techniques alongwith modified conventional lectures and hands-on laboratory activities were used.In addition to the assignments, and
Architectural Engineering at the California Polytech- nic State University, San Luis Obispo (Cal Poly) where he teaches courses on the analysis and design of structural systems including laboratory courses.Dr. Graham C. Archer P.Eng, California Polytechnic State University Dr. Graham Archer, P.Eng., is a Professor of Architectural Engineering at the California Polytechnic State University, San Luis Obispo (Cal Poly) where he teaches courses on the analysis and design of structural systems.Dr. Cole C McDaniel, California Polytechnic State University Dr. Cole McDaniel, P.E., is a Professor of Architectural Engineering at the California Polytechnic State University, San Luis Obispo (Cal Poly) where he teaches courses on the
instruction and twohours of laboratory per week. This paper presents the design of the course, including anassessment-based approach for selection and rotation of supplemental instruction work groups,explores results of the pre- and post-assessments for two semesters of Engineering Physics I, andpresents implications for this course as well as for interfaces with subsequent courses inengineering curricula.IntroductionEngineering programs in the School of Engineering at Southern Illinois University Edwardsvillerequire two semesters of University Physics, a calculus-based sequence with associated labs.These courses are taught in the Department of Physics and require a pre-requisite of Calculus Iwith a grade of C or better and a co-requisite of Calculus
been instrumental in acquiring, through various grants, computers, and software for the physics laboratory at FVSU. Some of his funded grant proposals are as follows: 1) Establishing a Nuclear Science and Engineering Minor at Fort Valley State University 2) Establishing an Undergraduate STEM Teaching and Research Laboratory at FVSU 3)Establishing an Interdisciplinary Bioinformatics Laboratory at Fort Valley State University 3) Computer-based Instrumentation Laboratory for Undergraduate Science and Mathematics Programs at the Department of Mathematics and Computer Science Fort Valley State University. 4) Developing an Undergraduate Minor in Computer-based Mea- surement and Instrumentation at Fort Valley State
. Students learned aerodynamicsconcepts in the course and how it affects wind turbine energy extraction. In labs, thestudents subsequently mount a 3D printed wind turbine blade in a wind tunnel to evaluateits aerodynamic effectiveness.Wind tunnel instrumentation and 3D printer augmented fluid dynamics instruction andlabs were examined. It was hypothesized the technology could be used to rapidlygenerate designs of energy extraction components in laboratory-based fluid dynamics andaerodynamics education. As a result, in addition to ensuring that learning was at least aseffective, the instructional process would be more efficient, than the non-augmentedinstruction. This paper presents the results of student performance and comparisons of theaugmented
Paper ID #29830Remotely Accessible 3D Printer for Teaching CNC Programming: LessonsLearnedDr. Sheng-Jen ”Tony” Hsieh, Texas A&M University Dr. Sheng-Jen (”Tony”) Hsieh is a Professor in the College of Engineering at Texas A&M University. He holds a joint appointment with the Department of Engineering Technology and the Department of Mechanical Engineering. His research interests include engineering education, cognitive task analysis, automation, robotics and control, intelligent manufacturing system design, and micro/nano manufactur- ing. He is also the Director of the Rockwell Automation laboratory at Texas A&M
called a lecture-and-labenvironment. This environment traditionally uses lectures on subject matter and is supplementedby laboratory experience. If the laboratory experiments are not generating the expected results,very often the whole experiment needs to be repeated. The unexpected results could be due tofaulty components, incorrect design specifications, or improper connections. Nonetheless,implementing a circuit in the lab with undesired output might be time consuming. However,having an electronics simulator will enable the students as well as the instructor to analyze theperformance of a circuit prior to implementing the actual hardware components.This paper investigates design, simulation and implementation of a decade counter using
its efficiency in terms of theprogram’s educational contents, its target audiences, and its outreach impacts.IntroductionInterest is growing in the reorientation of educational programs to make them moreoutcome-based and results-oriented [1-4]. Outreach programs, as parts of recruitmentefforts of educational institutions, are especially appropriate for outcome assessment. Theresults of such assessment allow evaluation of the accomplishment of the objectives andprovide for fine tuning of outreach activities leading to the improvement of the quality ofthe educational programs.Assessment tools used to evaluate the accomplishment of the outcomes of conventionaleducational programs that include class and laboratory activities may not be
quarter of AY 2006-7 to a 4-quarter credithour upper-division technical elective course on Micro- and Nano- Characterization of MaterialSurfaces. The course was first offered in the Spring quarter of AY 2005-6, and has 3 hours/weekof lectures and a 2 hours/week laboratory segment. The course is now a part of a concentrationprogram in Nanotechnology and MEMS being developed under a department-level reform grantfrom the National Science Foundation to the department of microelectronic engineering. Toaccommodate brief reviews of differential equations and materials science concepts, the coursenow covers only two families of experimental techniques: x-ray diffraction and scanning probemicroscopy. At the end of each of the eight experiments, each
AC 2007-2288: EXPOSING HIGH SCHOOL STUDENTS TO THE ROLE OFENGINEERING AND ADVANCED MATERIALS IN DEVELOPINGALTERNATIVE ENERGY SOURCESGukan Rajaram, North Carolina A&T State University Gukan Rajaram is a Post-doctoral research scientist in the Department of Mechanical Engineering. He received his PhD in Mechanical Engineering from North Carolina A&T State University. His research is in the area of electrode and electrolyte synthesis and characterization for solid oxide fuel cells. He also teaches senior level mechanical engineering laboratory and actively involved in K-12 outreach activities.Devdas Pai, North Carolina A&T State University Devdas M. Pai is a Professor of Mechanical Engineering
: engineeringprofessors who serve as directors that oversee the programs agenda; otherengineering faculty who teach some engineering courses; Guilford Countyteachers, who served as instructors for the mathematics and science; one (1) highschool counselor who facilitates the career explorations and invites otherprofessionals as guest speakers; technicians who conduct the laboratory sessions;six (6) engineering undergraduate students who served as student teachers andmentors; and one (1) engineering undergraduate who serves as the photographerand mentor. The funds for the director come from the College of Engineeringoutreach and specific sessions such as the CAMSS nanotechnology programis funded by the specific research center. Once the Guilford
numericalproblems and generate charts and graphs using MATLAB. This course is designed to givestudents opportunities for hands-on practice through the lab work and project studies. The authoralso instructed senior students to use MATLAB for experimental data analysis in course MEEN4131 (Mechanical Engineering Laboratory). In this paper, these successful teaching experiencesare summarized and some additional suggestion is also addressed.IntroductionMATLAB has been largely used in many engineering schools, because it provides a friendlyinteractive system that incorporates numeric computation, symbolic computation, and scientificvisualization [1-2, 4-10]. Authors taught a sophomore course to help the students apply theMALAB tool for engineering problem
configuring system and displaying data.Mechanical Engineering Laboratory This laboratory course is a requirement of ourmechanical engineering juniors and has an annualenrollment of ~40 students. Wireless sensors are beingutilized to study the deformation of beams and their modesof vibration. To illustrate the use, Fig. 5 shows an Vertical beamsexperiment in which the response of a small structure to Excitation motorvibration is being analyzed. A small electric motor with aneccentric drive induces vibration into the structure. The Strain gageflexible vertical beams will exhibit different modes ofvibration depending on the motors
laboratories that are advancingunderstanding of this new field of science and engineering. The Pennsylvania NMT (Nanofabrication Manufacturing Technology) partnershipwas established in 1998 as a state government response to the nanotechnology workforceand research needs of industry. Its guiding principle, since its inception has been thesharing of the Penn State Nanofabrication Facility, a NSF National NanofabricationUsers Network (NNUN) site, with educational institutions across Pennsylvania. TheNMT Partnership has grown into a unique team effort involving over 30 institutions ofhigher education, secondary schools including vocational-technical schools, and privateindustry. The NMT Partnership has firmly established Pennsylvania as the
, material deformation processes,molding processes, and joining. A large range of material types is discussed including metals,polymers, composites, glasses, and ceramics. In addition, other critical areas such asmeasurement and inspection, quality control, product quality optimization, production systems,and manufacturing economics are explored. The lectures are provided to the students in anelectronic format that enables significant student discussion and active participation in theclassroom, as opposed to note taking. Short in-class quizzes are routinely given during lecture toensure that students are keeping up with the subject matter.The classroom learning is augmented by hands-on laboratory experiences that students completeeach week during
tool in its ability to determine the principalstresses and the associated principal directions. The features of proportional and non-proportional loadings have been exemplified in this paper by studying the stresses in a shaftunder combined bending and torsion using Mohr’s circle.INTRODUCTIONThis study constitutes a laboratory component of the Mechanics of Materials courses taught toengineering students at the sophomore or junior levels. It is important that the students learn howthe external loads combine to produce stresses in a critical location of a structure or acomponent. This is fundamental to the understanding of the response of a structural componentto a combined system of loads that result in normal and shear stresses. Mohr’s circle
within a senior level manufacturingengineering elective, ENGR 4801 – Rapid Prototyping and Reverse Engineering. Otherengineering majors and forensics minors can also take this course as a technical elective with theapproval of their academic advisors. The ENGR 4801 is a 3 credit course, with two 50 minutelecture and one 2 and ½ hour laboratory time weekly. It is also offered as a graduate elective forthe MS in Engineering Management program.Literature ReviewA literature review conducted by the authors indicated the various ways reverse engineeringmethodology and its tools utilized in engineering education. Following is a brief summary of theliterature review. Goss presented a non-educational project where he used the CADKEYgeometry generation
mode was significant. The moresuccessful the program became, the more pressure there was to add additional courses, and themore it cost to run the program. The cost per student taking a course via the distance mode wassignificantly greater than the cost for a student sitting in a classroom taking the same course.More students, but at greater cost, doesn’t necessarily improve the balance sheet. Luckily thesolution was just around the corner, for the nation was moving rapidly toward a “wired”economy based on the spectacular advances in the field of microelectronics. The computer agewas dawning. There will be more about that later.Where’s The Lab?Engineering Technology prides itself on the emphasis placed on laboratory experiences.Through the
inthe current user interface and navigation components.The interactive drawing and response tool portion of the tutorial was presented separately toapproximately eighty students in an introductory engineering graphics course at PurdueUniversity. These students had some basic experience with multiview drawing and had completedseveral simple problems of this nature in course laboratory exercises. The students were asked tocomplete ten problems in the interactive drawing and response module and were asked tocomplete a short survey regarding the interactive tool. From these responses, the followingoverall opinions were noted: • The students consistently found the tool to be easy to use. • The error messages were not clear or were somewhat
Graham Bell patented the “photophone”, an opticaltelephone system. Although telephone traffic was carried primarily by wire through most of thetwentieth century, investigation of optical communication continued. By 1960 optical fibers werebeing used in medical imaging, but their attenuation was much too high for long distancecommunication. Around 1970, however, researchers at Corning developed optical fiber withattenuation of less than 20 dB/km and Bell Laboratories demonstrated a point-to-point fiber optictelecommunication system in 1975. Thanks to further improvements of optical fiber as well as inlaser diodes and photodiodes, the performance of fiber optic telecommunication systems hascontinued to improve. Currently available optical fibers
outside speaker – an engineer from a racing team – discussed his duties andresponsibilities on an actual team, both in preparation for and during a race. He brieflytouched on tire pressure, recording, adjusting wing angles, ambient conditions and theireffects on the car.12. Develop an understanding of the role of the “factory” in the manufacture of the engine, chassis, tires, etc.No activity in initial course offering. We are seeking a guest lecturer for the next courseoffering.Dynamics ModuleIt is not possible to present details on from all the modules in this paper, so we will usethe vehicle dynamics module and the engine module, as representative examples.Approximately three weeks of lecture and four weeks in the laboratory were devoted
programming. This feature makes it veryattractive since our control classes and laboratories are populated by students from mechanical,manufacturing and electronic backgrounds. In addition, this particular PLC has built-in dataacquisition capabilities, making it ideal for comparing theoretical responses (obtained bysimulating a SIMULINK-based model) with that of the actual hardware. Further, PLCs areextremely common in industrial and manufacturing environments, and the student’s familiaritywith them can serve as an added bonus in seeking employment. This paper presents themodeling, parameter estimation, and simulation procedures. The setup can also be easilymodified so that it is controlled by other types of controllers (microcontroller-based, PC
courses, to sophomore laboratories, to junior co-operativeeducation experiences, to the capstone experience in the senior year. Therefore, this center has catalyzed the collaboration of multiple participants withinterests in a variety of curricular features. Innovations are proposed in the form of new ordifferent content, new delivery methods, and expanded points of delivery. This center is alsohelping to redefine interactions with institutional entities such as the Office of Grants andSponsored Programs, the Center for the Advancement of Teaching and Learning, the UniversityAssessment Council, and the Office of Professional Practice. This center will createdopportunities to streamline the undergraduate curriculum and share resources more
Unit Operations for Bioprocess Engineers Chenming (Mike) Zhang Department of Biological Systems Engineering Virginia Polytechnic Institute and State University Blacksburg, VA 24061Abstract Unit Operations in Biological Systems Engineering was introduced into thecurriculum at Virginia Tech in 2000. It is a lecture and laboratory combined course. Thelectures and experiments covered in the course had a narrow focus before the author tookover in 2002. To broaden the education for students selecting the BioprocessEngineering option within the curriculum, the author has revised the content of the courseto give the
, the study of telecommunications systems is today recognized as an academicdiscipline in its own right. The University of Oklahoma (OU) - Tulsa is one of a select few thatoffers a Master of Science degree in Telecommunications Systems under the aegis of the Schoolof Electrical and Computer Engineering. The degree has been designed with a common set ofcore courses: Telecommunications Industry Overview, Telecommunications Technology,Network Design and Management, Telecommunications Laboratory, and Professional Project.In addition, students may choose technical electives from among electrical and computerengineering, computer science, mathematics, and telecommunications systems courses. Studentsmay also choose up to six credit hours of approved
equations course), 12 credit hours of physics courses with a lab component, and7 to 8 credit -hours of chemistry. The chemistry requirement is flexible and varies dependingupon the chemistry background of the student. All students must take Chemistry I, which has alab component, for gaining the associated experimental skills. Students then may take the secondcourse in the sequence with or without the lab component. The latter option is for those, who areinterested in acquiring more laboratory skills. Further, as the courses with lab component areoffered every semester as opposed to the limited offering of the course without the labcomponent, several students prefer the latter sequence.Several courses in the major also contain the basic-sciences
school year studying in state-of- the-art science,mathematics, computer laboratories and smart classrooms. The program goal is toenhance the participants' academic ability and interest in technology by providinghands-on opportunities to work on research projects with university faculty andmentors. We will also examine the influence of incorporation of Technology on bridging theDigital Divide and Computer Equity for groups under-represented in science,technology, engineering and mathematics. A review of the effects of technology on ourparticipants in their educational attainment at the secondary and post-secondary levelsis presented.2. Introduction The Center for Pre-College Programs at the New Jersey Institute of Technologyhouses an Upward
University of Hartford in 1999 byadding a community sponsored environmental engineering research project. Semester longgroup projects on a relevant environmental topic typically include fieldwork, sample analysis,design and construction of laboratory bench scale tests, computer modeling, oral presentation,and written report. An important aspect of these studies is for the students to meet the sponsor sothat they clearly understand how their results will benefit the community. This helps to reinforcethe student’s appreciation for the importance of a life-long commitment to civic responsibility.Assessment tools used in evaluating service learning have been student surveys, informalfeedback from project sponsors, and acceptance of abstracts at