title“Students working on industry projects in class” also opens the webpage source:University of Colorado at Boulder school’s page, featuring the Capstone DesignConference in this website article7. From this separate browser page, the high schoolstudent can read about this program and also continue to use that school’s website tocontinue to research this program and other school facts that would be of interest. Page 15.262.8Figure 3. Landing page (left) and Search page (right) from Preparing for Advanced Manufacturing CareerAnother way to learn about manufacturing education programs from this page is byclicking the “Looking for More?” link
Paper ID #17683MAKER: Smart Lighting Module for Teaching High School Science and En-gineering Students about Programmable Logic ControllersMr. William H. Heeter, My name is Bill Heeter. I have been teaching pre-Engineering classes now for fifteen years. I have taught four different Project Lead the Way classes. Currently, I am certified to teach three PLTW curriculum’s and I am a past ”Master Teacher” for Engineering Design and Development, the capstone PLTW curricu- lum. I taught several non-PLTW classes including Manufacturing Engineering and AC/DC. I also taught a Petroleum Engineering curriculum. I graduated from Texas
Electronics Course with an Increased Content of Renewable EnergyApplications, June 14-17, 2009 Annual ASEE Conference and Exposition, Austin, Texas, 2009 (CD Proceedings).13. R.G. Belu – Design and Development of Simulation System for Renewable Energy Laboratory, 2010 ASEEE Page 24.730.12Conference & Exposition, June 20 - 23, Louisville, Kentucky (CD Proceedings).14. R.G. Belu and D. Koracin – E-learning Platform for Renewable Energy Sources, 2010 ASEEE Conference &Exposition, June 20 - 23, Louisville, Kentucky (CD Proceedings)15. R.G. Belu - Renewable Energy Based Capstone Senior Design Projects for an Undergraduate
ability to balance the social, economic andenvironmental impacts of the project. It is believed that problem-based learning, as exemplifiedby a capstone senior design project such as this one, provides students with important knowledgeabout green design. In addition, such projects provide students with the essential projectmanagement and engineering skills required to bring complex projects from idea to completion.The prototype was successfully able to navigate autonomously to a programmed destination andcharge its battery using solar energy. Its performance was dependent mainly on the accuracy ofthe GPS module. The prototype demonstrated how a manually controlled vehicle, such as aremote control toy car, could be converted into a very basic
Paper ID #18671MAKER: Large Outdoor Display to Indicate 3D Printing QueueProf. Nathan Delson, University of California at San Diego Nathan Delson’s interests include mechatronics, biomedical devices, human-machine interfaces, and en- gineering education. He isCo-founder and Past President of Coactive Drive Corp., which develops novel actuators and control methods for use in force feedback human interfaces. Medical device projects include an instrumented mannequin and laryngoscope for expert skill acquisition and airway intubation training. He received his undergraduate degree in mechanical engineering from the University
technical electives. In their junior year, they would replace“Natural/Physical Science w/Lab” with “Microbiology” (Bio 330 & Bio 330L). Also, they wouldtake “Fundamentals of Heating, Ventilation, and Air Conditioning” (MET 407) as their EETelective. During their senior year, students would be required to take elective course 2(Biotechnology) and elective course 4 (Biotechnology Manufacturing Laboratory) as their EETelectives. In their “Capstone Design Phase I and II” (EET 428 & EET 429), students would berequired to do their project in the area of Biotechnology Manufacturing or find an internship witha local biotechnology company in order to gain practical experience. Students selecting theproject will be evaluated by a professional
Computer-Aided Design and Additive Manufacturing 6 Composite Design, Manufacturing, Inspection & Repair 8 CNC Machining and Manufacturing 6 UAV Construction and application 4 Technical Electives 2 Capstone Degree Project 3 Total 67Table 2 provides a list of Advanced Manufacturing practical courses focusing on contentinvolving Computer-Aided Design, Computer-Aided Manufacturing, Composite StructuralManufacturing, Inspection & Repair, CNC Machining and Manufacturing
College. She is the senior design co-ordinator for Mechanical Engineering within the School of Engi- neering at Penn State Behrend. She is also involved in the executive committee of Design In Engineering Education Division at ASEE and the Capstone Design Conference.Johnathan Moody, Pennsylvania State College, Erie c American Society for Engineering Education, 2016 MAKER: Redesign of a Multipurpose Hardware Tool to Improve its Functionality and MarketabilityAbstractThis paper presents the summary of a maker project that redesigned a multi-purpose utility tool,originally designed for linemen. While the tool had a great potential, its original design was aletdown and the product was a
. The RP/RM education at RMUis very effective, enhancing a healthy combination of theory and practice. A successfulstudent completing the ENGR 4801/5810 course gains invaluable information on thesetechnologies, and is able to operate all related hardware and software tools that include SLAtechnology, Reverse Engineering tools, and CNC technology. This knowledge and skill set isthen applied in his/her CARES Research or Engineering Projects or Integrated EngineeringDesign assignment (Capstone Course Project). Being competent in these areas make thestudent employable by CARES during his/her education and by the local industry. Students’response and feedback on these courses show their satisfaction in the learning process. It isnot uncommon to see
here requires student teams to design and machine an injection mold that will beused to produce plastic parts (see Figure 2). Finally, some though not all students may utilizeCNC machines for fabrication work as part of their capstone Senior Project (ETEC 422 and 424). Figure 2. Examples of Molds Machined in ETEC 335The requirements for project work in ETEC 322, 426, 335 and 422/424 place high demands onthe four machines in the department’s CNC laboratory. The use of verification technology is oneway to reduce the amount of on-machine programming changes needed, identify errors andstreamline the procedures that students must follow before being allowed to execute their workon a machine.Developing and Deploying the
major goals for students choosingmechanical engineering majors. Seamless design, analysis, and manufacturing capabilities arerapidly being adopted by industry as a part of standard engineering practice. However,mechanical engineering curricula tend to overlook design and manufacturing relationships until Page 14.693.2the senior capstone course sequence [6]. A track area of Design and Manufacturing offered in amechanical engineering program may provide a viable solution to augment a conventional MEcurriculum. This paper presents details of planning, managing and implementing such acurriculum development activity in design and manufacturing under
and helpbring them to the classroom. Within the SME there is the North American ManufacturingResearch Institute (NAMRI) that holds annual research events. Over time increasing theeducational ties to this group should help identify prime areas for education that can beintroduced to the undergraduate curriculum ahead of industry demand. Page 14.393.6Places where research topics are expected to have a direct input include, ≠ Senior level capstone courses and undergraduate course projects ≠ Upper level electives and advanced topics courses ≠ Exposure through co-ops and internshipsInnovation in EducationEducation is a process, much like any process in manufacturing. Universities bring in studentsand
paper describes laboratory innovations for the enhancement of undergraduate level teachingof a capstone course (MET 205 Robotics and Mechatronics) integrated with emergingtechnology. The trends in emerging fields of renewable energy have changed the teachingschemes with industrial robots. The new developments allow the students to program, monitor,and control robotic operations through the Internet using the LabVIEW. The project at DrexelUniversity addresses this issue and encourages students to investigate in possible methods forbuilding quality solar energy efficient systems. It presents a non-contact-based approach toassess certain performance methods and characteristics of a solar cell of solar cells by using E-Quality and image processing
engineeringsciences to place them closer to the engineering side of the spectrum. As a consequence, thecreation of the engineering programs could be accomplished through additional classes inmathematics, expansion of use of this new material in existing classes, increase in designexperiences in the curriculum, and the expansion of the capstone project experience. The need toadd significant additional new content as new classes was limited to the areas of Design forManufacture and Assembly and Machine Design. Table 1 summarizes the courses offered in thenew program. More details on the challenges of creating a program by transition will bediscussed in a later section of this paper. Page 26.393.5
: continuous improvement of astandalone manufacturing course for mechanical engineers, and a new application of the fourpillars model of the manufacturing engineering body of knowledge. Having seen an example ofthe four pillars applied to evaluation of a manufacturing engineering program also presented atthe 2012 ASEE conference (paper)3, this method showed promise for also critiquing themanufacturing content within a mechanical engineering concentration.Project GoalThe goal of this project was to evaluate the content of a manufacturing processes course formechanical engineering students using the content areas of the four pillars, in the context of therest of the program course requirements, to help identify opportunities for improvements. Theresults
ofroller coasters at amusement parks, and automated robotic welding lines in the automobileindustry.Traditionally, engineering courses have covered only selected automated assembly line designconcepts, usually in the context of teaching some other topic. For example, in industrialengineering, workstation design, assembly line design and line balancing are covered in courseson production systems. In mechanical engineering, design of devices such as material handlingtrays are covered in mechanical design courses. There is typically no single course thataddresses automated assembly design issues.Education on the big picture of system integration is typically accomplished via capstone coursesor senior design projects1. In this type of instruction
Design and Fabrication of Spline(DFS module) using the rotary axis of a CNC machining center, and a laboratory experiment inrobotics along with results obtained from student team projects are presented, analyzed, anddiscussed.IntroductionThe advancement in technology, computers, and automation demands continuous improvementin the quality of education, both in theory in the classroom, as well as hands-on practice indesign, computer simulation, and manufacturing laboratories. There is a growing need forpreparing the students both in theory and practice so that they are well prepared to meet thechallenges in the job market, especially in the manufacturing industries of the 21st century. Astrong multi-disciplinary background is required from
core component of any engineering education. Most students take someform of engineering design in their capstone experience, as is recommended by ABET [1].Recently, however, more opportunities for this work have been created for underclassmen.Studies have shown that placing team-based engineering design earlier in an engineeringcurriculum can provide students with valuable teamwork skills and connections to real-worldengineering work, as well as increase retention of material learned in class [2]. Teaching designfreshman year increases retention of women and underrepresented minorities[3]. It also providesrelevance and context to young engineers’ careers.While there is an increased interest in teaching engineering design, understanding how to
Engineering Technology. In 2001, she joined the Spacecraft Technology Center as an Assistant Director where she was responsible for the structural and thermal analysis of payloads. She served as Director of the Space Engi- neering Institute and in 2010 she accepted a position with the Academic Affairs office of the Dwight Look College of Engineering where she oversaw outreach, recruiting, retention and enrichment programs for the college. Since 2013, she serves as the Executive Director for Industry and Nonprofit Partnerships with responsibilities to increase opportunities for undergraduates engineering students to engage in experiential learning multidisciplinary team projects. These include promoting capstone design
capstone (culminating project). A review of over fifty associate level mechatronicsprograms in the United States revealed that over 90% of those programs had at least one coursein each subject mentioned above as the “second year” courses. Local program “flavor” dependson regional industry needs and is expressed in other related courses that might be required orelective.The future of mechatronics education is exciting and coming very fast. Many industries,including manufacturers, are rapidly adopting the technologies and communication platforms ofIndustry 4.0 for their production systems. The new term “Industry 4.0” was coined to capture thegrowing integration of cyberphysical systems, cloud computing, big data with sophisticatedautomated and
AC 2011-1720: THE 2011 STATE OF MANUFACTURING EDUCATIONHugh Jack, Grand Valley State University Professor of Product Design and Manufacturing Engineering. His interests include Automation, Robotics, Project Management, and Design. Most recently he was part of the team that developed the Curriculum 2015 report. Page 22.1426.1 c American Society for Engineering Education, 2011 The 2011 State of Manufacturing EducationAbstractThe paper complements the work of other groups and professionals, all trying to assess the statusof manufacturing education. To this end the paper
manufacturing. The challenge for MFS online lies in successfullyreproducing the learning experiences that arise during face-to-face teamwork activities andinteractive projects. This means moving the MFS online involves creating online equivalents forsignificant interactive team work and activities ranging from laboratory experiments on differentmanufacturing processes, team-based product design with physical products/in softwareplatforms and their assessment to simulating manufacturing system and supply chain operations.To help students master the complex technical concepts and skills and to give them a foundationin creativity and teamwork, these interactive aspects of the coursework are critical. The goal of the MFS degree program at the
Paper ID #12965Maker: Twisted Sister RoverDr. Andy Zhang, New York City College of Technology Dr. Andy S. Zhang received his PH.D. from the City University of New York in 1995. He is currently the program director of a Mechatronics Project in the New York City College of Technology/CUNY. For the past 10 years, Dr. Zhang has been working on bringing mechatronics technology to the undergraduate en- gineering technology curricula and on helping high school students to learn mechatronics through FIRST Robotic Competition events.angran xiao, New York City College of Technology, City University of New York Angran Xiao is
Paper ID #73332013 State of Manufacturing EducationDr. Hugh Jack, Grand Valley State University Hugh Jack is a Professor of Product Design and Manufacturing Engineering at Grand Valley State Uni- versity in Grand Rapids, Michigan. His interests include manufacturing education, design, project man- agement, automation, and control systems. Page 23.19.1 c American Society for Engineering Education, 2013 The 2013 State of Manufacturing EducationAbstractThis paper presents
capstone project they must execute procedures to assembly and load cutting tools, load and simulate programs on the controller and correctly establish work-offsets for the part to be machined. It is rare that a student runs a program without needing to troubleshoot a problem. For example, a heavy initial cut during a facing operation would indicate an incorrectly set tool length or work offset. Many of these problems can be identified and troubleshooted during the execution of the program. Others that are not immediately apparent manifest themselves in dimensional and surface finish variations in the final part. These provide the basis for students developing the skill of connecting cause and effect. This will be
well as for quality control undergraduate and graduate courses in ET Masters program. Also, she introduced the first experiential activity for Applied Mechanics courses. She is coordinator and advisor for capstone projects for Engineering Technology.Dr. Richard Chiou, Drexel University (Eng. & Eng. Tech.) Dr. Richard Chiou is Associate Professor within the Engineering Technology Department at Drexel Uni- versity, Philadelphia, USA. He received his Ph.D. degree in the G.W. Woodruff School of Mechanical Engineering at Georgia Institute of Technology. His educational background is in manufacturing with an emphasis on mechatronics. In addition to his many years of industrial experience, he has taught many different
modernize the laboratory was to havestudents redesign and upgrade existing equipment as part of their senior capstone projects. Thisapproach kept the cost low and provided enhanced learning opportunities for the studentsdeveloping the experiments. The students developing the projects gained valuable real worldexperience in the design and integration of automated equipment. Additionally, requiring thatthe students integrate the components and wiring into neat and professional looking enclosuresprovided the students insight into the skills and time required by industrial electricians whomaintain equipment in manufacturing plants. Funding for the modernization was provided by theuniversity and industrial supporters.ContentThe development of an
. Authors believe that it ishigh time that the discussed surface parameters, tools, filters and mathematical modeling ofmethods be included in all design, manufacturing and capstone project courses (freshmenthrough senior year). A better educated workforce would be able to contribute significantlyhigher to quality tools and advanced metrology. It is an evolutionary process, i.e., standards keepconstantly changing; however, it must transition smoothly into the curriculum. It is imperativethat course instructors keep up to date with the latest standards, and implement them as shortinteractive modules. In an ongoing effort, based upon the contents of this paper, the authors havemade several instructional modules on surface finish. These modules
manufacturing in both of these disciplinesis needed8. Many current engineering programs do not emphasize the marriage of design andmanufacturing in a modern industrial technical workforce [10].Many research studies have assessed the quality of exposure to manufacturing through the seniordesign or capstone course. McMasters and Lang indicate that few people in industry have anunderstanding of how the current engineering education is undertaken. Through design projects,the inclusion of industry partners in the education process will enhance the education provided tothe students and better reflect the expectations of industry [11]. Universities are exposingstudents to manufacturing through senior capstone design courses to offer students with arealistic
-g depict locations dedicated to CNC mills, variouscutting tools, and hand tool stations. The Studio layout also indicates the locations of the wetlab,welding area, light machinery, heavy machinery, and laser cutters. The Innovation Studio hasfour full-time machinists on staff, a lab manager, and several undergraduate employees.Figure 1. Innovation Studio layout.Since its inception, the Innovation Studio has supported numerous activities including seniordesign/capstone projects, student recruitment, workshops, trainings, seminars and outreachevents. The mission of the Innovation Studio is to provide a student-centric, project-focusedcollaborative shared space and equipment to the greater Drexel community in support ofinnovative educational