, University of North Carolina, Charlotte MR. ROBERT H. SWAN, JR., is a Faculty Associate and the Director of Laboratories at the University of North Carolina at Charlotte, Department of Engineering Technology. Though Mr. Swan is relatively new to teaching, he has brought to the university over 25 years of work experience involving geotechnical and materials testing and engineering. He has owned and managed various testing laboratories with an emphases on performance testing of geosynthetics and soil-geosynthetic interaction. He is a proponent of test method and equipment development and Quality System implantation
study was conducted in the years 2004, 2008 and 2009. In the year 2004 thelearning system was introduced, it was a one year project funded by an NSF CourseCurriculum and Laboratory Improvement (CCLI) proof of concept grant. This projectresumed in 2008, since this was when the CCLI full development proposal was funded.Participants: The participants of this research were freshmen students enrolled for anundergraduate course “CE 215: Fundamentals of Geotechnical Engineering” at MissouriS&T.The details of participants over the years are listed below:2009: The students completed the assignment in the lab.2009: The students completed assignment as homework.2008: The students completed assignment in lab.2004: The students completed
physical and PLC ladder logic whendesigning simple automation projects. Combined lecture and laboratory activities implementingthe Kolb experiential learning cycle for the PLC module are addressed. The success of themodule is assessed and evaluated through student performance tests in solving design problemsusing ladder logic and through student surveys. Results demonstrate an effective method forstudent learning when lectures and labs are integrated in a meaningful manner.IntroductionIn engineering education, depending on the material to be learned and the instructor’s style ofteaching, a number of teaching and learning methodologies and their combinations are used.Since engineering is considered an applied discipline, many of the methods revolve
education and help the students to understand the concepts and applications ofthis type of energy. Due to the high costs of the training units, it becomes a budget concern topurchase training units for laboratory sections. Some of the pre-built training units already on themarket have a price range from ten thousand to fifty thousand dollars per unit. If there are budgetconcerns for the program, the only option that remains is to teach theory without the benefit ofhands-on training. Taking these issues into consideration, the students in the IndustrialTechnology program have designed, built, and tested a multi-purpose renewable energy trainingunit for the alternative energy related classes. This prototype trainer is designed to be used forhands-on
students interested in pursuing a minor in ECE. This paper reports onour method of teaching such a class that is particularly appealing to non-major students.In this paper we would like to share our experience thus far with colleagues who are teachingsimilar non-major classes. We intend to discuss the following traditional and rather non-traditional topics: 1. Analogies to mechanical engineering concepts 2. Current flow in DC circuits 3. Basic semiconductor (diode) theory - is it difficult? 4. Basic solar cell and thermoelectric engine 5. Laboratory materials 6. MATLAB and LabVIEW 7. Historical context 8. Video tutorials 9. Conclusions and assessment1. Analogies to mechanical engineering conceptsIn our
-community-university partnership designed to address non-academic barriers to school success via a web of coordinated health and social service resources across ten public elementary schools. He has also worked as a federal education researcher for the Southwest Educational Development Laboratory evaluating the effectiveness of reform models developed to improve student academic performance by enhancing systemic coordination of academic resources. In addition, Dr. Ramos has served as a consultant in a variety of contexts investigating a range of issues including program effectiveness, organizational communication, assessment and public policy, and research methodology
Page 15.804.1© American Society for Engineering Education, 2010 Introducing Freshman Engineering Students to Experimental Design: Coffee BrewingAbstractAt Rowan University, we have introduced experimental design throughout the ChemicalEngineering Curriculum, in all levels of Engineering Clinics (freshman through senior) as well asthe senior Unit Operations Laboratory. This paper describes a module used in our FreshmanClinic which introduces students to experimental design through a hands-on coffee brewingexperiment and Statgraphics computer laboratory. Students perform a 2x2 experimental designto prepare coffee using a French press coffee maker, and the effects of water temperature andbrewing time on the
AC 2010-1762: SYSTEM DYNAMICS AND CONTROL TAKE-HOMEEXPERIMENTSMusa Jouaneh, University of Rhode IslandWilliam Palm, University of Rhode Island Page 15.1157.1© American Society for Engineering Education, 2010 System Dynamics and Control Take-Home Experiments AbstractMost Mechanical Engineering curricula include courses in system dynamics, controls,mechatronics, and vibrations. At most schools, these courses do not have a laboratorycomponent. Even at schools that have such a component, laboratory access is often limited, andthus there is a need to increase students’ laboratory experience. This paper addresses thedevelopment of
methods of teaching in the lectureor the laboratory. We use a laboratory project-based approach, where the students arelearning by doing. The course is divided into two sections, lecture and laboratory session.During the laboratory session, the students work at mid-term and final projects, while thelecture the programming, numerical and computational techniques and methods arediscussed. The usefulness of this approach is evaluated by surveys conducted everysemester, and feedback from other educators is highly appreciated.I. IntroductionComputational physics is an independent way of doing physics, and an essential tool ofthe physics research. Numerical computations are essential to further understanding ofphysics problems, and computers and
revealcourses in the electric vehicle area. There are, however, on-going grant programs and recentannouncements of grant funded opportunities that are designed to help develop engineering andtechnical courses and programs with a skill focus on electric vehicle design and manufacturing.Examples of Electric Vehicle Courses and ProjectsSeveral programs, courses or projects that focus on electric vehicle instruction have beendescribed in recent literature. General Motors Corporation is joining with the University ofMichigan to create a new automotive advanced battery laboratory as well as a specializedcurriculum to develop automotive battery engineers.21,22 An Advanced Technological EducationNSF grant program sponsored a joint college-university project
Payne is a senior in the Mechanical and Nuclear Engineering (MNE) Department at Kansas State University (KSU). In addition to his work as laboratory assistant on our MNE wind tunnel facility, where he has contributed significantly to wind tunnel lab development projects such as the current Pitot-static probe project, he was also the team leader for the KSU SAE Aero Design Competition in 2008.Trevor Heitman, Kansas State University Trevor Heitman is a junior in the Mechanical and Nuclear Engineering Department at Kansas State University (KSU). He worked on the Pitot-static probe project as part of his wind tunnel laboratory assistant activities, and has also contributed significantly to previous
AC 2010-747: INTERDISCIPLINARY MINOR IN HYDROGEN TECHNOLOGY ATMICHIGAN TECHNOLOGICAL UNIVERSITYJason Keith, Michigan Technological University Jason Keith is an Associate Professor of Chemical Engineering at Michigan Technological University.Daniel Crowl, Michigan Technological University Dan Crowl is the Herbert H. Dow Professor of Chemical Engineering at Michigan Technological University.David Caspary, Michigan Technological University Dave Caspary is the Manager of Laboratory Facilities in the Department of Chemical Engineering at Michigan Technological University.Jeffrey Allen, Michigan Technological University Jeff Allen is an Associate Professor of Mechanical Engineering at
AC 2010-2146: TEACHING ENGINEERING REASONING USING A BEAMDEFLECTION LABNatasha Smith, University of Southern Indiana Page 15.1173.1© American Society for Engineering Education, 2010 Teaching Engineering Reasoning using a Beam Deflection LabAbstractWell crafted laboratories reinforce theoretical concepts presented in class, but also sharpenstudents’ technical reasoning skills and provide practice in technical communication. This paperpresents an introductory mechanics laboratory on beam deflection, suitable for freshmenengineering courses or as an opening week experiment for Strengths of Materials. The labconsists of 4 distinct experiments, each requiring students to
especially worthwhile. The students find that itis usually difficult (at least in our area) to gain information from manufacturers if aspecific job and potential sale is not imminent. The interaction gives the students anopportunity to practice and improve their communication and negotiation skills.An extension of this project could be the design and construction of a lab experiment toverify the analytical solution of the governing differential equation. The experimentcould utilize existing heat exchangers in the engineering laboratories or the studentscould design and build a heat exchanger specifically for the experiment.The project has many facets to it, and the instructor has a lot of flexibility in his/herspecification of the project's
, the program also provided students with knowledge and acore set of skills that span across basic sciences, technology, engineering, and mathematics(STEM) education. With an emphasis on environmental biotechnology, this is the first programin the state of Texas that integrates bioprocessing, nanobiotechnolgy, bioinformatics andenvironmental biotechnology.The program is specifically designed to: ≠ Develop adaptable students with a strong foundation in skills that are relevant to the changing world of biotechnology ≠ Provide students with practical training in the skills and techniques of biotechnology. ≠ Integrate the laboratory and lecture components of the program through the use of an experimental approach to learning
integratingexperience-based system simulation modules into a series of vehicle dynamics courses. We alsopresent experiential modules to integrate the motion simulation system into a required junior-level mechanical engineering course and in a required senior-level flight dynamics aerospaceengineering course. This paper reports on work done under National Science Foundation grantDUE-0633596 in the Course, Curriculum, and Laboratory Improvement (CCLI) program.1 Background and Motivation: Cyber-enhanced EducationIn engineering education, relating theoretical and analytical results to real-world phenomena isone of the most difficult tasks. While text, equations, diagrams, and graphs are an efficientmeans of presenting large amounts of information, such
HPC, one for undergraduates and onefor graduate students, that provides students with hands-on experience in designing, developing,and testing commodity-based supercomputing systems. In this paper, we describe a cost-effective and scalable approach that we developed for this course, which has been successfullydelivered over several semesters. We describe the curricular context, pedagogical approach, andoutcomes along with a detailed description of the approaches and strategies we used to develop ahands-on laboratory component that can be replicated by others seeking to develop similarcourses. We believe that our results will be useful to departments and institutions interested indeveloping curricula to answer the increasing needs presented by
side. Two tests on micro-controller Timer/event counters principles are required which account Pulse width modulator 30% in total grade. The experiment Analog to digital converter laboratory occupies another 40% of total Interrupt grade. Students should practice each I2C bus serial interface experiment unit for understanding the Halt and wake-up mode principle of micro-controller technology. Watchdog timer Students should develop the ability to
Fanuc Robotics. The developmentincludes course material in industrial Robotics and establishing robotic automation lab inpartnership with Fanuc Robotics CERT program.IntroductionRecent advances in robotics have revolutionized our personal and business lives. Today,commercial and industrial robots are in widespread use, performing jobs more cheaply and insome cases with greater accuracy and reliability than humans. They are also employed for jobswhich are too dirty, dangerous, or dull to be suitable for humans. Robots are widely used inmanufacturing, assembly and packing, transport, earth and space exploration, surgery, weaponry,laboratory research, safety, and mass production of consumer and industrial goods. Robots playsignificant roles in our
university efforts in green technologyleadership. This includes bringing a hydrogen fueling station on campus. The comprehensivenature of the university, its strategic location in the hydrogen and fuel cell abundant industrialregion and a historically minority-serving charter make it an ideal candidate to carry out theproject. The approach used is multidisciplinary and a combination of full fledged courses andlecture modules. The latter is applied to both hard core engineering courses as well as to ageneral education course reaching wider university audience. The funding is also used toestablish a “Zero Emissions Laboratory” with both purchased and custom built experiments.Curriculum, Course, and Laboratory DescriptionsTwo full-fledged courses
buildings,hydrogen fuel-cell systems, wind power (generator and gear train systems), waste heat, biomassfuels, wave power, tidal power, active/passive human power, nuclear and hydroelectric energy,storage technologies (battery, supercapacitors), and hands-on laboratory projects. This courseacquaints students with existing and potential ambient alternative energy sources, productioncapacities and energy harvesting, conversion, and storage techniques. Key concepts,terminology, definitions, and nomenclature common to all energy systems are introduced byusing historical traditional energy generation methods and by reviewing typical energyconsumption patterns. The course concludes with a general review of how to integrate energyharvesting technologies
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
utilize the available network resources at home and gain some hands-on practice.Most of the laboratories designed for the computer networking courses are set up on campusnetworks11, 14, 15. The labs run on real devices which needs a budget. Those networks aremaintained by technical staff and shared by all the users, so students only have limited access tothe networks. Besides the traditional networking laboratories performed on real devices, there aresome other approaches to teach networking labs, such as virtual lab software13 and simulationtools. Simulation software1,5,8 can be used to simulate the network environment, so realequipment and networks are not necessary. For example, VMWare1,12 is used widely in theteaching of computer networks
. She has extensive experience researching biofilm bacteria in industrial systems. Currently, Dr. Goeres leads the Standardized Biofilm Methods Laboratory at the Center for Biofilm Engineering. The mission of this laboratory is the development and validation of quantitative standard methods for growing, treating, sampling and analyzing biofilm bacteria. Her goal is to promote collaboration among the various entities interested in biofilm methods.Diane Walker, Montana State University Diane Walker is a Research Engineer with the Center for Biofilm Engineering (CBE) at Montana State University. One of her responsibilities is to mentor student interns within the Standardized Biofilm Methods
, sequentially:1) Newton’s and Faraday’s laws as applied to Cartesian particle dynamics, plus an introductionto elasticity, 2) the same concepts extended to rotational systems, 3) fluid dynamics, and 4)conservation of energy and heat transfer. Teaching of the fundamental technical and physicsemphases will be done through lectures, and their application will occur in the team-based designprojects. Laboratories will be used to teach about, test and characterize the mechanical andelectrical devices associated with the physics emphasis, and to teach the associated softwarepackages and manufacturing techniques to be used in modeling and constructing the student
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
successful careers in manufacturing engineering and allied professions.The curriculum consists of 63 credit hours of engineering fundamental and manufacturing core,33 credit hours of mathematics and science and 31 credit hours of general education courses toprepare students for engineering practice as required by ABET 1 (Criterion 4) and to meet theUniversity’s general educational requirements as well.The process of fourteen outcomes developed for the MANE program at Virginia State Universityalong with the methodology of assessment was described 2. The program provides students withextensive experience in basic science and mathematics, engineering science, laboratories,computers, design, communication and teamwork, along with humanities and social
AC 2010-2027: EVALUATING THE MOTIVATIONAL AND LEARNINGPOTENTIAL OF AN INSTRUCTIONAL PRACTICE FOR USE WITH FIRSTYEAR ENGINEERING STUDENTSOdesma Dalrymple, ASU PolytechnicDavid Sears, Purdue UniversityDemetra Evangelou, Purdue University Page 15.533.1© American Society for Engineering Education, 2010 Evaluating the Motivational and Learning Potential of an Instructional Practice for use with First Year Engineering StudentsAbstractAn experiment was conducted within a first-year engineering laboratory to provide empiricalevidence to support the pedagogical viability of Disassemble/Analyze/Assemble (DAA)activities, such as
design effective and efficient part manufacturing methods and complete production systems for commercial and industrial products. The common theme for students is mastering process, production system and enterprise design procedures that are applicable to any product in any industry. Graduates have been successful in manufacturing enterprises that produce virtually every type of product -- literally, from spacecraft to foodstuffs. In addition to traditional courses, Dr. Wells leads innovation teams in two engineering venues: product realization and transforming laboratory research into commercial products. Dr. Wells’ active research lies in orthopedic implants, micro-assembly, micro-machining
of the physical sciences to understand,develop, and fabricate solar cells. The teachers went into the clean room and completed theprocessing steps to produce functional solar cells, then they tested and characterized them. Theteachers left with a souvenir wafer and course material that aided them in the introduction ofsubject matter into their curricula. Program assessment was conducted and course outcomesmeasured through teacher surveys.IntroductionThe Electrical and Computer Engineering (ECE) department at Montana State University (MSU)has created two new laboratory intensive courses in which undergraduate (EE407) and graduatestudents (EE505) are given the opportunity to go into a clean room and process a silicon wafer toproduce functional