students to engineering andscience. A rarer application of LEGOs in engineering education is the use of virtual LEGO®environments. In addition to robotics, Lai-Yuen1 also describes the use of a virtual assembly ofLEGO® blocks to teach students concepts in micro-manufacturing. Kelley7 describes a similarapproach in which virtual LEGO® blocks are used to teach and implement Product DataManagement (PDM) techniques. Pasek et al.8 have developed automation to assemble LEGO®blocks as part of a CIM driven LEGO® Factory. This utilizes a virtual assembly of LEGO®blocks as input to process planning that sequences assembly of the LEGO® model in the factory.While these cases involve students creating virtual LEGO® assemblies, none of them include
processes for product production applications such as forming, molding, separating, conditioning, joining, and finishing.5. Utilize 2-D and 3-D computer-aided design systems to create drawings and models for products, machines, jigs, fixtures, and other mechanical devices used in manufacturing environments.6. Read and interpret manufacturing documentation such as blue prints, technical drawings and diagrams, production plans, tooling plans, quality plans, and safety plans.TEC333 also has specific course objectives. Upon successful completion of the course, studentswill be able to:1. Identify geometric characteristic symbols and the other symbols associated with geometric dimensioning and tolerancing.2. Identify features with size and
individual and group training sessions for theeducators involved in curriculum development and design. Each session included a detaileddescription of the project's curriculum design goals, and involved discussions on factual,conceptual and procedural knowledge, knowledge application, and student reflection. Handoutswere provided on methodology, instrumentation, procedure and assessing learning outcomes.The sessions gave instructors an opportunity to state their questions and concerns, and discusstheir long term curriculum development plans. The goal of the project is to develop students’ higher order thinking skills, problemsolving, technical visualization skills, and decision making skills in the context of a data-richlearning environment
Paper ID #20321Use of Model-Based Definition to Support Learning of GD&T in a Manufac-turing Engineering CurriculumDr. Derek M. Yip-Hoi, Western Washington University Dr. Yip-Hoi received his Ph.D. from the Department of Mechanical Engineering at the University of Michigan in 1997. His dissertation research focused on developing Computer-Aided Process Planning methods and software tools to support automation of machining on Mill/Turn machining centers. Follow- ing his Ph.D., he worked for several years with the NSF Engineering Research Center for Reconfigurable Machining Systems at the University of Michigan. His work
possible due to COVID-19.7. Future plansWe are repeating this exercise in Spring 2021. Engineering students submit an initial conceptpaper describing an initial design for the room, and a mid-project report that includes pictures ofthe SolidWorks model. These are both sent to the nursing students who provide feedback. Thefinal product is the SolidWorks model, a final report, pictures, and a video walkthrough of theER room. The report, pictures and walkthrough are sent to the nursing students. This year allstudents are designing emergency rooms, with about 32 students working with nursing, andabout 16 working independently. The use of the Vive for a VR walkthrough will probably beattempted in 2022.8. Research questionsWe plan to conduct this
GenderParticipant Gender (N=69) n %Female 12 17Male 57 83The Computer Graphics Technology 116 course an introductory engineering design graphicsclass that requires the students to plan, visualize, create, and manipulate 3D solid and surfacemodels in several high-end parametric and NURBS-based computer graphics software packages.The students receive theory lectures and practical assignments involving sketching, 2D and 3Dgeometry applications, orthographic and pictorial imaging, the design process, creativity, andother related topics during a 16-week
techniques based on thecurrent teaching module. Redesign the curriculum and assure the hands-on activitiesembedded with current teaching plan to enhance learning outcome without extra worksafter class. Step1:Drawmultiviewsof fivephysicalmodelson paper. Time:1-3days Step2:Submitthe drawingstotheinstructor andgetinstantfeedback. Time:About5-15minutes Yes Redo needed? No Step3:Sketchisometric pictorialonpaperfrom multiviewsinstep1
Paper ID #29350Cloud Based Computer-Aided Engineering Education: Finding the SilverLiningDr. Derek M Yip-Hoi, Western Washington University Dr. Yip-Hoi received his Ph.D. from the Department of Mechanical Engineering at the University of Michigan in 1997. Following his Ph.D. he worked for several years with the NSF Engineering Research Center for Reconfigurable Machining Systems also at the University of Michigan. His work involved supervision of sponsored research projects that focused on developing software applications to assist manufacturers design and plan operations on manufacturing systems that could be rapidly
programs after-school programs, and comprehensive school reform initiatives. Across these evaluations, she has used a variety of evaluation methods, ranging from a multi-level evalua- tion plan designed to assess program impact to methods such as program monitoring designed to facilitate program improvement. She received her Ph.D. in Research, Measurement and Statistics from the Depart- ment of Education Policy at Georgia State University (GSU).Dr. Sunni Haag Newton, Georgia Institute of Technology Sunni Newton is currently a Research Associate II at the Georgia Institute of Technology in the Center for Education Integrating Science, Mathematics, and Computing (CEISMC). Her research focuses on assessing the
prevalent in engineering design graphics, explainengineering design graphics instruction within the context of cultural-historical learning theory,and describe specific learning examples within this theory.Introduction / Review of LiteratureThe process engineering graphics educators use to design instruction, select course materials, andexecute an educational plan is influenced by many factors. Some educators instruct primarilyusing methods that they experienced as students. They use instructional strategies that havesuccessfully produced results over time. Others are reflective practitioners and ponder the theorythat motivates their classroom instruction. The learning theory they embrace informs the types ofinstructional strategies they use in the
simplifies the designprocess, so pre-planning a modeling strategy is not necessary as compared to history-basedmodeling. Users working on existing models do not need to understand the modelingstrategy used to create the model, and do not need to search through the feature tree toidentify specific feature parameters in order to make a change to the geometry. The directmodeling approach facilitates quickness and responsiveness-to-change, making it an idealapproach where speed and flexibility are important3. Due to the absence of the history tree, models created using the direct modelingapproach exhibit greater interoperability. Files can be saved in standard formats such asSTEP, Parasolid, or ACIS, and imported into other CAD packages without loss
planning process. Thereare many options available and many alternatives could have resulted in acceptable learningoutcomes for students. The most applicable graphics software for our civil engineering programconsisted of AutoCAD, Civil 3D, and Revit. Other programs such as SketchUp or Civil designsoftware from developers such as Bentley or MicroStation could have been used in the deliveryof the course.The decision was made to use AutoCAD and Civil 3D in the course because the software iswidely used in civil engineering, the software is available to students free of charge, and thereare many design features available in Civil 3D. These features include land development tools,road and rail design tools, earthworks tools, piping network design tools
plan and Appreciation of the imperatives of between technical systems and the other disciplines and professions to Appreciation of the nature of risk, quantify performance over the life- Impact of Acquisition of broad educational safety and of sustainability, and social, cultural, environmental, broaden knowledge, achieve cycle of a project or program, background and/or general both of a technical kind and
identified pertaining to studentabilities in mental rotation of geometric forms and pictorial visual rotation abilities.Summary statistics, frequency analyses, and hypothesis testing uncovered that studentmental rotation abilities of geometric forms collectively exceeds that of ability ofpictorial rotation ability.IntroductionContemporary curriculum policy and planning largely focuses on the development andpromotion of numeracy, literacy and articulacy skills1. However, research has identifiedthe importance of graphicacy across the education system in developing well-balancedhuman citizens2; 3. “Graphics” are the representation of visual images with the purposeof communicating some information. Representations differ vastly in their purpose,mode of
Facilities personnel, andfaculty spent time planning for multiple Fall 2020 semester scenarios because of the COVID-19pandemic. University Facilities began by evaluating all classrooms and laboratory spaces todetermine maximum capacities. They also worked with departments to provide cleaning suppliesfor offices and classroom spaces.Mode of InstructionIn June of 2020 the university made the decision to offer as many face-to-face and hybrid classesas possible during the Fall 2020 semester. After University Facilities assessed all classrooms andlaboratories on campus to determine maximum room capacities, department administrators thenworked with faculty to determine their preferred mode of instruction for the fall semester.Faculty were able to adjust
Page 25.1341.4questions. The survey took approximately ten minutes to complete and was e-mailed directly tothe first-year students in the college. The initial survey was developed by Computer Graphics Technology graduate student,Brandon Karcher, as part of his thesis. The survey was modeled on the Theory of PlannedBehavior that was proposed and developed by Icek Ajzen3 in his paper, From Intentions toActions: A Theory of Planned Behavior. According to the theory, decisions are guided by threeconsiderations: behavioral, control, and normative beliefs. When these three beliefs combine, anintention is formed. The intention is then linked to a behavior, and depending on the perceivedbehavioral control an individual has, the behavior will be
year MET students from each of thefocus areas are required to complete a team-based senior design project. Studentsprogress through a two semester sequence starting with Product Design and Developmentpresenting integrated methodologies that examine marketing, manufacturing, and cross-functional teams including concurrent engineering and projects utilizing CAD systems,and ending with a Senior Project course including evaluation and design optimizationmethods for efficient and cost-effective designs requiring an oral/written report andcomprehensive exam. In the capstone sequence the student teams first generate thedesign, optimize the design and document the design. Then, during the last semester theteams plan for production, manufacture and
on projects. It is important that they go beyond the classroom walls to expand theirprofessional, technical and aesthetic expertise. Many of them participate in group projects wherethey work for non-profit organizations. The time required to do this does not fall in the weekly-designated classroom time. A significant part of the course involves researching and planning fora one to two semester senior project. Some students choose to work as a group to create theirsenior project while others contribute to an existing company’s CG needs.The course has been designed as a hybrid course with five classroom meeting times throughoutthe semester, for faculty-student discussions as well as presentations of in-progress and finalprojects. These meeting
to be added as a prerequisite to a junior level mechanical engineering course. Thedesign topics will be blended in by implementing two design projects. The first one will be adisassembly and redesign of an existing product; the second will be a more involved designproblem. The students will be required to produce supporting materials including marketsurveys, results of brainstorming, specifications, project management, prototype development,and testing. The total design topic hours will change from approximately 30 to 40.One of the topics missing from the three-instructor version of ED&G 100 was teamwork. In theone instructor version, we plan to integrate teamwork training modules and assignments. Thiscourse will be taught by one
-composites, computer integrated design, process planning and manufacturing, online design catalogs, and web-based collaboration.Dr. El-Sayed S. Aziz, Stevens Institute of Technology (SES) Dr. El-Sayed Aziz holds a faculty position as Associate Professor in the Production Engineering and Mechanical Design Department at Faculty of Engineering, Mansoura University, Egypt. Currently, he is working as a research scientist at Stevens Institute of Technology, Hoboken, New Jersey, USA. He received B.S. and M.S. Degrees in Mechanical Engineering from Mansoura University, Egypt, in 1991 and a Ph.D. in Mechanical Engineering from Stevens Institute of Technology in 2003. His research interests include knowledge-based engineering
AC 2007-327: GRAPHICS: INTO THE 21ST CENTURYLa Verne Abe Harris, Arizona State UniversityFrederick Meyers, The Ohio State University Page 12.792.1© American Society for Engineering Education, 2007Graphics: Into the 21st CenturyAbstractGraphical plans for construction of machinery and architecture have evolved over the last 6,000years beginning from hieroglyphics to drawings on printable media, from the “Golden Age” ofengineering graphics to the innovation of computer graphics and prototyping. The evolution ofengineering design graphics as a profession has also evolved. Years before we entered the 21stcentury, higher education began to address the changes that technology brought to
multimedia exercises, 3D software and othertechnologies used in graphic engineering3,16,17,18,19.Researchers like P. Connolly20 suggested a need to develop spatial abilities in GraphicEngineering subjects. Barr21 analysed future academic engineering plans with modern trends inmind and highlighted that the most important subject that should be included in a programmeshould be the development of spatial skills. Historically there has been a great deal of interest inthe methods of instruction and technologies that could potentially increase the spatial skills of itsusers22, 23, 24. Currently, the rise of virtual reality (be it augmented, desktop or immersive) hasfuelled the renewed research about the development of spatial ability.Over the last few
the 1960’s developed curriculum projects titled “IACP” and “Jackson Mills” that led to thenew curriculum in technology education that provides more than just skill-based training, but curricula that developsstudents literacy in critical thinking, problem-solving and design. Donald Maley and the research andexperimentation emphasis in his “Maryland Plan” in the 1970-80’s and the national focus on design in the 1990’shas made technology education one of the main catalysts for pre-engineering education6. This can also easily berecognized in the “State Career Clusters” curriculum project in 2001 that established needed standardization forcurriculum related to science, technology, engineering, and mathematics (STEM) from the US Department
HW#3 may be assigned a Page 26.513.7weighting of 15% each, while Exam #1 (a stronger indicator of outcome obtainment) may beassigned a weighting of 55%. Indeed, the resolution of a Performance Indicator may even be atthe level of specific exam questions, etc. A “weighted average” summary for each courseoutcome may be automatically generated. As discussed in the next section, this weightedaverage data may be utilized to aid in program-level assessment. Finally, this table may then bemanually augmented with the instructor’s comments on potential future plans to improveobtainment of any given course outcome. In summary, ACAT’s course-level
Education and Graphic Communications. Content focuses on planning and executing web sites for educational effectiveness, user interfaces, and site testing as well as web graphics. This course provides instruction in software appropriate for creating a website. • TDE 385/386 is an introductory study of design and invention system control mechanisms and robot sensors. Ultimately, teams of four students design, create, program, and exhibit a robot that addresses a real-‐world issue. Throughout this process, students apply foundational skills developed in TDE 205 and GC 350. Scope and
individual organization. Collaboration suggests a more durableand pervasive relationship, and the authority is determined by the collaborative structure. Weaim to establish a true collaborative relationship in this design competition task. To judge thecollaboration type of design, identifying its mission, authority, and relationship is important.Kvan [26] suggested that collaboration is also episodic and cyclical. Collaborators interactperiodically, but they work independently and parallel during portions of the design. Kvan’smodel is demonstrated by Fig. 2. There are generally four stages in an iterative cycle: meta-planning, negotiation, expert work, and evaluation
be both creative and systematic. By being creative, studentscan conceive unique and multiple modeling strategies. Before implementation, students cansystematically evaluate these strategies and select the most appropriate one. This front-endthinking reduces modeling time and results in a robust model.2.1. Identify Modeling SequenceFor an efficient part modeling, a designer must plan the model tree or the sequence of features.Modeling a bird house (see fig. 1) illustrates the power of an effective modeling sequence. Themodeling can be effectively executed by using the steps shown in fig. 2. The design intent in thisparticular task is “the walls extend from the floor to the roof.” This model is an effective one as itcaptures the design intent
received her BS from Georgia Tech in 2006, double-majoring in Psychology and Management.Dr. Meltem Alemdar, Georgia Institute of Technology Dr. Meltem Alemdar is Associate Director and Senior Research Scientist at Georgia Tech’s Center for Education Integrating Science, Mathematics, and Computing (CEISMC). Dr. Alemdar has experience evaluating programs that fall under the umbrella of educational evaluation, including K-12 educational curricula, K-12 STEM programs after-school programs, and comprehensive school reform initiatives. Across these evaluations, she has used a variety of evaluation methods, ranging from a multi-level evalua- tion plan designed to assess program impact to methods such as program monitoring
is honored with Geoffrey G. Eichholz Faculty Teaching Award in 2015 and Undergraduate Educator Award in 2012 from the Center for Enhancement of Teaching and Learning (CETL), Georgia Tech.Dr. Tristan T Utschig, Georgia Institute of Technology Dr. Tris Utschig is Assistant Director for the Office of Assessment at Georgia Tech. Formerly, he was Assistant Director for Scholarship and Assessment of Teaching and Learning in the Center for the En- hancement of Teaching and Learning. He has extensive experience consulting with faculty for research, planning, implementation, and assessment of educational innovations and programs. Formerly, he was Associate Professor of Engineering Physics at Lewis-Clark State College. Dr
23.319.6 Fig. 8 – Project evaluation resultConclusion:The reverse engineering project gave students an opportunity to develop their creativity, criticalthinking, and hands-on skills in an area of their interest. In the project time frame, several shortstructured events were arranged, in which the students discussed the tasks that they hadaccomplished thus far, the challenges that they faced, and also their plans for completing theirprojects. This project helped the students to establish an understanding of how math and graphicaltools in solid modeling process can be utilized to take maximum advantages in mechanical andmanufacturing analyses of the models. The students also learned to understand the concepts