AC 2008-2680: TEACHING CONCEPTS OF LEAN MANUFACTURINGTHROUGH A HANDS-ON LABORATORY COURSEArun Nambiar, University of Puerto Rico-Mayaguez Arun received his Bachelor's Degree in Mechanical Engineering from Birla Institute of Technology and Science, Pilani, India in 1997 and Master's Degree in Industrial Engineering from Ohio University, Athens, OH in 2004. He went on to receive his Doctoral Degree in Integrated Engineering (with an Industrial Engineering concentration) from Ohio University, Athens, OH in 2007. His research interests include production, planning and control of manufacturing systems, application of lean principles, study of discrete-event systems and cost estimation for various
AC 2012-5066: IMPACT OF AN UPDATED ROBOTICS LABORATORY INAN INDUSTRIAL ENGINEERING PROGRAMDr. Richard A. Pitts Jr., Morgan State University Richard Pitts, Jr. is currently an Associate Professor in the Industrial & Systems Engineering Department at Morgan State University (MSU). He received his B.S.I.E. degree from MSU in 1991. Later, he received both his M.S. and Ph.D. degrees in industrial engineering from yhe Pennsylvania State University in 1995 and 2006, respectively. Page 25.715.1 c American Society for Engineering Education, 2012 Impact of an Updated
. Page 15.777.1© American Society for Engineering Education, 2010 Integration and Improvement of a Robotics Laboratory in an Industrial Engineering CurriculumAbstractRobotics is the study of robots and their design, manufacture and application to various systems.The impact and benefits of robotics in education at all levels have been broadly addressed anddocumented by many researchers and educators. Several institutions (including CarnegieMellon) have developed a robotics program which has provided an extensive background forstudents wanting to study and conduct research in this arena of engineering. When coupled withhands-on laboratory modules, robotics provides a vast source of opportunities to use
AC 2012-3136: USING A SYSTEMS ENGINEERING APPROACH FORSTUDENTS TO DESIGN AND BUILD LABORATORY EQUIPMENTDr. Tim L. Brower, University of Colorado, Boulder Tim L. Brower is currently the Director of the CU, Boulder, and Colorado Mesa University Mechanical Engineering Partnership program. Before becoming the Director of the partnership three years ago, he was a professor and Chair of the Manufacturing and Mechanical Engineering and Technology Department at Oregon Institute of Technology. While in Oregon, he served as the Affiliate Director for Project Lead the Way - Oregon. In another life, he worked as an Aerospace Engineer with the Lockheed Martin Corporation in Denver, Colo. He is an active member of ASEE, ASME, and
Paper ID #14211Building the Design Competence in Industrial Engineering Junior Studentsthrough realistic constraints of the Operations and Logistics LaboratoryIng. Lina Margarita Prada-Angarita, Fundacion Universidad del Norte Education: Master of Science in Industrial Engineering, August 2014 - Universidad del Norte, Barran- quilla, Colombia. Bachelor of Science in Industrial Engineering, September 2006 -Universidad del Norte, Barranquilla, Colombia. Research Areas: Theory of Constraints, Education in Engineering, Concur- rent Engineering, Service Quality. Work Experience: Full time faculty member, Universidad del Norte
chalk-and-talk type of class by carefully usingtechnology in strategic places and avoiding technology in certain other places. We quantitativelyevaluate the effectiveness of our strategies and provide insights. Next, a good portion of thispaper is devoted to one specific use of technology which is in laboratory-like exercises. Theseexercises were developed to teach more difficult concepts such as Central Limit Theorem andshow how it applies to project evaluation and review technique (PERT). As a result, not only didthe student understanding of complex material improve, but also the material was covered in amuch shorter time. Finally the paper concludes with a qualitative discussion of issues where it isunclear whether technology boosts or
control chart signals but returns to the process at a later random time. The web-basedmodule was written in Netbeans and utilizes the Glassfish application server. A MySQLdatabase maintains the Mouse Factory information and student records. A major advantage ofthis approach is that Netbeans, Glassfish and MySQL are all open-source software packages. Page 25.1244.4Figure 2. Bill of Materials Page 25.1244.5Figure 3. Critical Point - CoverSPC Lab FourThe fourth SPC laboratory allows students to design, implement and evaluate the impact ofimplementing a c control chart within the Mouse Factory. In the first SPC
designed to prepare a workforce to fill the IIoT skills gap.Central to this education network infrastructure is a remotely accessible Converged Plant-wideEthernet/IP (CPwE) hands-on lab environment that provides synchronous access to IIoTlaboratory experiences.This paper details an interdisciplinary project involving the design, development, andimplementation of a remotely accessible lab environment that integrates enterprise IT withindustrial automation and control systems (IACS) into a fully functional CPwE manufacturinginfrastructure. The CPwE laboratory environment provides a platform for students and facultyfrom ECU and regional community colleges and high schools to develop critical IIoT skillsthrough collaborative hands-on lab
BerkleyNational Laboratory the importance of the energy efficiency services sector (EESS) to the U.S.economy is growing rapidly 3. Climate changes, issues regarding energy supply, a desire andperceived security need for energy independence, and uncertain but rising energy prices have ledto an increase in interest, funding and policies that support and promote energy efficiency inresidential, commercial and industrial buildings. The federal government and a number of stategovernments have also valued energy efficiency as an economic recovery strategy 4.As a result there has been significant growth in the energy efficiency services sector (EESS) inrecent years. According to a 2010 study the growth is projected to continue and to accelerateover the next ten
recipient. She is a senior member of the Institute of Industrial Engineers, the Human Factors and Ergonomic Society , and a member of Alpha Pi Mu (Industrial Engineering Honor Society). She has received numerous awards for outstanding research activities and classroom instruction. Prior to serving as Department Chair, she served as Associate Dean of Engineering responsible for Research and Industry Outreach. Formerly, Dr. Crumpton-Young served as the developer and director of the Ergonomics/Human Factors Program and Experimentation Laboratory. Ergonomics/Human Factors laboratory supports classroom instruction and conducts research studies in the areas of Industrial Ergonomics
Paper ID #6283Teaching Gage Reproducibility and Repeatability using the Mouse FactoryDr. Douglas H Timmer, University of Texas, Pan AmericanDr. Miguel Gonzalez, University of Texas, Pan American Page 23.1144.1 c American Society for Engineering Education, 2013 Teaching Gauge Repeatability and Reproducibility using the Mouse FactoryAbstractThe Mouse Factory contains a set of web-based, active learning laboratories for teachingstatistical quality control and design of experiments. The sixth laboratory in the Mouse FactoryLearning suite is
enrollment in STEM areas has beendeclining; this is particularly true for minority and Appalachian students. This project workedwith two batches of twenty students each. Each batch was organized into four teams of fivestudents. All students were first provided instruction in logic circuits and ladder logic. Ladderlogic circuits for four tasks were created; a) simulation of automatic garage door, b) simulationof four way traffic light, 3) controlling a light via a physical switch, and 4) physical control offive lights. The five lights mimicked traffic lights (red, yellow, yellow left, green, and green left)at an intersection. The students were asked to control the timing sequence of the lights. Uponcompletion of the eight hour lecture/laboratory
students. Each week, the students aresubject to (2) 50-minute classroom lectures and (1) 115 minute laboratory experience in TheFactory for Advanced Manufacturing Education (FAME) laboratory at Penn State UniversityPark. The objectives of the course are to introduce industrial engineering students to the theory,principles, mechanisms, and concepts of solidification/ additive manufacturing processes formaterials, emphasizing process selection and the effects of process capabilities and limitation ondesign, costs, and quality. The course includes lectures, laboratories, demonstrations, videos,extension readings, and homework problems. The main course topics covered in the course aremechanical testing and properties, metal casting processes, welding
current state of industrial education in institutions ofhigher learning in America. The influence of earlier apprentice programs, which provided youngpeople with an education that prepared them to become gainfully employed in a trade, seems tobe evident in the values and views of modern day industrial education programs, particularlythose in community colleges. Indeed, it may not be a stretch to suggest that many programs incolleges and universities still see value in “hands-on” or “experiential learning,” a desired featureof the modern curriculum.Current Challenges Facing Technology ProgramsGiven the high cost associated with using and maintaining industrial equipment, 8 many schoolshave begun replacing existing laboratories with newer modular
AC 2007-154: PROJECT REJUVENATION: A TIME-TESTED 1ST YEARMACHINE TOOL PROJECTHarvey Svec, South Dakota State UniversityHarriet Svec, South Dakota State University Dr. Harriet Svec has a background in Curriculum and Instruction and assisted with the curriculum rejuvenation of the project. Page 12.1204.1© American Society for Engineering Education, 2007 Project Rejuvenation: A time tested 1st year machine tool projectAbstractAn engineering prerequisite course for Mechanical and Manufacturing Engineers has stood thetest of time as it has changed with technology. The course laboratory project was originallydesigned
specific tactics, which fit naturally as subtopics withinexisting courses, students often encounter lean tactics in a piecemeal fashion, making it difficultfor students develop an integrated understanding of the underlying philosophies. Courses Page 13.1340.2dedicated to lean are generally aimed at senior-level students. Opportunities to practice processdesign are often the domain of senior-level capstone projects as well.To improve the teaching of lean concepts, as well as to develop students’ ability to designeffective processes, several IE faculty at one university (referred to as Site 1 here) developed alean laboratory to support an
systems.Mr. John Kaemmerlen, Rochester Institute of Technology (COE) John is a Senior Lecturer at RIT in the Industrial and Systems Engineering Department, and is the Director of the Toyota Production Systems Laboratory. His areas of concentration are Lean, Production Systems, Facilities Planning, and Supply Chain Management. He also guides many of the capstone projects that RIT engineering students complete in the multidisciplinary senior design program. He has been at RIT for 7 years following 31 years at Eastman Kodak Co.Dr. Matthew Marshall, Rochester Institute of Technology (COE) Matthew Marshall is an Associate Professor in the Industrial and Systems Engineering Department at Rochester Institute of Technology. He
the fall semester of 2010, Stephen developed and taught a cross-listed undergraduate and graduate level course on simulation- based modeling and design using computational fluid dynamics. Prior to being at South Dakota State University, Stephen worked with the Simulation, Modeling, and Decision Science Division at Iowa State University’s Virtual Reality Application Center. His research while at these institutions included modeling complex multiphase fluid flows and systems of models to optimize engineering designs of energy systems. Stephen has been a coordinating instructor for undergraduate engineering laboratories, including fluid mechanics and heat transfer laboratories. Also, Stephen is actively involved with
sciences is required. One year is defined as 32 semester credits or one-fourth of the creditsrequired for graduation in the program. Basic sciences are defined as biological, chemical, andphysical sciences. Most of the engineering management programs meet this criterion through acombination of math, physics and chemistry courses, some with laboratory experiences.Figure 2 3,4,5,6,7,8,9 displays the most commonly required math and basic science courses and thepercentage of the engineering management programs that require these specific courses. It canbe seen that all programs require some calculus, some calculus-based physics and some statistics.Most also require some chemistry, differential equations and a second calculus-based physicscourse
almost completely to an on-lineformat, with each class requiring only a single on-campus face-to-face meeting.Converting Traditional Face-to-Face Classed to Web-Based On-Line ClassesThe first step in putting classes on-line was to decide which classes would be converted to on-line over the web. By the time our Manufacturing Engineering Technology students finish theirjunior year, they have had most of our hands-on engineering and laboratory-based courses. Wehad six traditional Industrial Engineering-based face-to-face classes in the senior year:Manufacturing Resource Planning and Control, Ergonomics and Work Measurement, IndustrialSafety, Project and Value Management, Logistics and Transportation, and Quality ManagementSystems. There was a total
processesinvolved in the production of a range of components included in these products map quite wellwith the manufacturing capabilities of our laboratories; students are therefore able to undertakethe subsequent prototyping of some of these components.The class includes four (4) laboratory sections of 20 students each. Within each Laboratorysection, students were free to assemble into five (5) groups of four (4) students each. Theproducts included two (2) power washers (one gas powered and the other with an electric motor)and two (2) sets of battery-driven hand power tools. Products were randomly assigned to eachsection during each section’s assigned Laboratory meeting time. The objective of this classexercise was twofold. First, it allows students to
mathematics instruction.ALEKS offered individualized mathematics tutoring that identified through assessmenttechnology a student's current knowledge and the material a student was ready to learn. The Pre-Calculus Engineering course also had laboratories and advising that included instruction in time-management principles. The laboratories conveyed that engineering was fun, promotedteamwork, and promoted building basic skill levels in laboratory report writing. The engineeringcourse taken concurrently with Calculus also included ALEKS as a major component.New Mexico State University implemented an Integrated Learning Community (ILC). ILC wasa cluster of first-year engineering students who were not Calculus-ready. These students tookthe same courses
, Product Design, Specification, and Measurement,which includes the course syllabus, course project, and detailed steps for the course project. Thecourse aims to provide an introduction to product design with an emphasis on the tools, standardsand methods used for product and part representation, specifications and measurements. Itinvolves hands-on learning and exercises in CAD and metrology laboratories. The class includeslectures, quizzes, laboratory assignments and reports, a CAD modeling project, exams, and in-class participation. The course content covers three main parts: product design and specification,dimensioning and tolerancing, and metrology. Product design and specification focuses on theproduct design process and basics of engineering
Main process designPPL Process Develop practical base for process Logistics process Level 1 –Design design using simulation software design sem. V (lectures & laboratory)PPL Industrial Prepare project proposal for Models, Level 1 –project industry. Form consulting Proposal for sem. VI company (8 students). Project industry realization in industry. industrial projectPSPL Process Base for process management and Proposal for Level 2Management & optimization using specialized factory
usually harder to teach in a fully online environmentbecause of the need for laboratories, machinery, chemicals or equipment. The structure of theclassroom blended with the Web could be the answer for engineering education. Blendedlearning can be described as the optimum balance of online and face-to-face classes that fosterstudent learning at reasonable costs. The limited literature on blended learning is full ofexamples from all disciplines. A number of universities (State University of New York,University of Massachusetts, University of South Florida, and Penn State University) haveconverted entire programs to the blended format1. Other universities are considering the blendedformat as an option to increase student learning and decrease costs
the customer as the primary source ofinformation input4.The quality of education will not be met until a quality culture is developed. Success can only beachieved when everyone involved in engineering education has the commitment, the motivation,and the means to incorporate the culture of quality in every lecture, every laboratory work that issupervised, … , or every paper that is written3. Self-assessment of quality in classroom processesand systems is essential to promote continuous improvement and customer satisfaction. Forexample, the total quality management concepts were applied to improve the quality of highereducation in Lamar University10. The planning phase of PDSA (plan-do-study-act) has beenapplied for quality improvement. The
AC 2012-4343: SYSTEMS ENGINEERING EDUCATION THROUGH PAR-TICIPATION IN ENGINEERING COMPETITIONSDr. Fernando Garcia Gonzalez, Texas A&M International University Fernando Gonzalez is an Assistant Professor of engineering at Texas A&M International University in Laredo, Texas. Previously, he was a technical staff member at Los Alamos National Laboratory and an Assistant Professor at the University of Central Florida in Orlando, Fla. Gonzalez holds a Ph.D. in electrical engineering from the University of Illinois, Urbana-Champaign. His research interests include intelligent control of autonomous systems, robotics, and modeling and simulation
such as microbiological laboratory wastes (blood and b) Infectious wastes blood containers, Serologic wastes, etc.), discarded surgery wastes, and air filters that contain bacteria and viruses. Tissues, organs, and fluids removed during surgery or c) Pathological wastes autopsy medical procedure. d) Sharp wastes Needles, syringes, blood vials, etc. e) Wastes with high content of heavy Batteries, broken thermometers, blood-pressure gauges
. Page 11.619.2Opportunities currently in place include senior design projects, Six Sigma projects, internships,co-ops, a mentoring program including interaction with student chapters of professionalorganizations, and undergraduate research projects. We are currently developing otherexperiential opportunities to further incorporate real-world experiences into the curriculumincluding developing remote learning laboratories in partnering with industry organizations. Asenior design course project is a standard requirement for industrial engineering undergraduates.Students must enroll in a senior design course during each semester of their senior year. Thecourse prepares students for work in the industry by assigning them to work on a company
discussed.Given the multidisciplinary component of the new curricula, junior and senior level studentsfrom different engineering majors will be able to register for the course.The course will also contain several lab practices for hands-on learning. There will be differentlab assignments; using the Hybrid Optimization Model for Electric Renewables (HOMER®)which is a free computer software developed by the National Renewable Energy Laboratory(NREL) used to model on and off-grid power sources. By using this software, students willexperience ways to evaluate and analyze different design options for intelligent hybrid powersystems. It will allow students to explore what renewable technologies are the most cost-effective and evaluate their impact on the