school’s student council. She received her Bachelor’s in General Studies and M.S. in Adult Education at IUPUI. She is currently working on her dissertation toward an Ed.D. in Higher Education Administration at Indiana University. Page 22.1172.1 c American Society for Engineering Education, 2011 Preparing Engineering Graduates for the Real-World: The Butler University and Indiana-University Purdue-University Indianapolis Joint Engineering Dual Degree ProgramAbstractEngineers of today must understand the social, political
2006-2446: SUCCESS, FAILURES AND NEXT STEPS FOR ENGENIUSSOLUTIONS: REAL WORLD IDEA LAB FOR ENGINEERSDan Moore, Rose-Hulman Institute of TechnologyDavid Shepard, Engenius Solutions Page 11.1174.1© American Society for Engineering Education, 2006 Success, Failures and Next Steps for Engenius Solutions: Real World Idea Lab for Engineers Michael Shepard and Dr. Moore1 Rose-Hulman Institute of TechnologyThe process of producing new products is difficult and filled with challenges not typically taughtin an engineering curriculum. While many students are exposed to product development, due totime
2006-129: BRINGING "REAL WORLD BUSINESS" INTO THE CLASSROOM:INTRODUCING ENTREPRENEURSHIP TO ENGINEERING ANDTECHNOLOGY STUDENTSPhilip Rufe, Eastern Michigan University Mr. Philip Rufe is an Instructor of Manufacturing Engineering Technology at Eastern Michigan University. He is a certified Manufacturing Engineer and a registered with the United States Patent and Trademark Office as a patent agent. He is the program coordinator of the Manufacturing Technology and Manufacturing Engineering Technology programs. He is also heavily involved with the Center for Product Reseach and Development at Eastern Michigan University.Gary Rodak, Eastern Michigan University Gary Rodak, President of
AC 2007-1677: WELCOME TO THE "REAL-WORLD" - BALANCINGPRACTICAL, LEGAL, AND EDUCATIONAL ISSUES IN IMPLEMENTINGINDUSTRIAL SPONSORED STUDENT DESIGN EXPERIENCESJames Baker, Michigan Technological University Jim Baker is currently the Director of the Office of Technology and Economic Development at Michigan Technological University. Jim's current responsibilities include handling University inventions from disclosure, through patenting, and licensing and working with students and academic units related to broader aspects of intellectual property law and technology commercialization. He also works on negotiating terms for sponsored research contracts, non-disclosure agreements, material transfer
unified framework. In World Conference on E-Learning in Corporate, Government, Healthcare, and Higher Education, volume 2014, pages 2003–2010, 2014.[18] Ning Wang, Xuemin Chen, Gangbing Song, and Hamid Parsaei. A novel real-time video transmission approach for remote laboratory development. International Journal of Online Engineering (iJOE), 11(1):pp–4, 2015.[19] Ning Wang, Xuemin Chen, Gangbing Song, and Hamid Parsaei. Using node-http-proxy for remote experiment data transmission traversing firewall. International Journal of Online Engineering (iJOE), 11(2):pp–60, 2015.[20] R Mahesh Babu, M Balaji Kumar, Rakesh Manoharan, M Somasundaram, and S Prabhakar Karthikeyan. Portability of mobile applications using phonegap: A case study
in the progress of completing, are storedin the in-game journal. Character persistence is necessary for students to venture from onelearning environment to another. This will enable them to study different educational material indifferent VGKMs. Character persistence can be accomplished through player profiles, which arecurrently a feature of NWN. They are used to allow gamers to play in online games with otherplayers from around the country and the world. Players log in to an online portal and then theycan access games with their saved character’s status, including game progress, accomplishments,and abilities.Real-time in-game interactionOne requirement of the VGKM is the capability for real-time web-based play with instructorinteraction
Paper ID #18868Development of a Design Canvas with Application to First-Year and CapstoneDesign CoursesDr. William A. Kline, Rose-Hulman Institute of Technology Bill Kline is Associate Dean of Innovation and Professor of Engineering Management at Rose-Hulman. He joined Rose-Hulman in 2001 and his teaching and professional interests include systems engineering, design, quality, innovation, and entrepreneurship. Prior to joining Rose-Hulman, his industry experience includes roles as cofounder and Chief Operating Officer at Montronix and development manager at Kennametal. Bill is a Phi Beta Kappa graduate of Illinois
the classroom, and creates a working prototype thatcreates value for these customers. This real customer interaction fosters empathetic design whileproviding a more meaningful classroom experience as students are able to see directly theimpact their designs have in creating real value – value as it is defined, not by the student orinstructor, but by their customer. In the junior year, engineering students are typically engaged in much of theirdiscipline-specific engineering coursework. Thus, this thread of entrepreneurially mindedlearning is extended by means of discipline-specific applications through projects deployed inmultiple junior-level courses. Finally, the senior capstone experience brings together students’engineering
opportunities for students. Students with various majors are forced to worktogether and make connections between theories taught in the classroom and real-world designapplications—improving their understanding. Connections among the disciplines drawn from inthis program can be seen in Figure 2. These connections are forged and experienced by both thefaculty teaching the program and the students in it.Figure 2. This Venn diagram indicates the connections among the different subject areas withinthe course and the expertise area of the faculty.For instance, in science the goal of creating models is to predict the world around us.Communication models rely on being able to predict human behaviors and responses. However,there is an overlap in that both
value creation. Be aware that this course and associated activities are intended to allow you to persistently anticipate and meet the needs of a changing world. 5G has many implications and applications that have societal benefits and economic value: – 5G – Internet of Things (IoT) – Driverless Everything – Security, Privacy – Distributed Ledgers (bitcoin, block chain etc.) – Deep Learning/Artificial Intelligence – Smart Everything: City, Grid, Cars – Molecular Communication (nanobots) – Light Fidelity (LiFi) – Spectrum Allocation (MIMO, 1000x), – Next Generation 911 – Other applications
structured learning experience by linking different concepts. In the second module, inorder to expose the students to real life applications of the course content, wireless consumptiondata provided by students is used to practice different demand forecasting methods. Students alsoneed to provide some economic analysis to choose the best solution alternative regarding theirforecasted values. This module makes the learning process more meaningful as the learnersobserve a real life application of the subject. In the third module, students practice energymanagement in order to minimize energy waste as one of the most important types of waste inlean production systems. In this module, they are expected to determine several sources ofenergy waste on
.” 7Another way in which students differentiated courses in the minor from technical classes in theirmajors is that the minor courses provided more opportunities for authentic application ofconcepts. One student described the difference in this way: “…you’re never really given the opportunity in these [technical] classes to think about applications you can use them for. You might learn applications in the textbook, but you’re not actually taking the time to think, “What could I make with this? What could I take these skills and use…to improve the existing society?”This student implies that textbook problems are inadequate in their ability to connect students’classroom learning with real-world application, a limitation that
understanding Interactive concepts learning environment Comfort with complexity of ideas Can relate to other courses Cases provide real-world application Relevant to real- world
real world, and the solution tothe problem has the potential to make a measurable impact on people outside the course. Second,learning is achieved through the application of higher-level inquiry and thinking skills. Third,authentic learning occurs through working within a community of learners. Fourth, students mustbe empowered in some way, which can be achieved by providing an open-ended assignment.One successful approach towards implementing meaningful learning experiences involvesengaging students in service learning activities, which Bringle and Hatcher described as apedagogical method of bringing more authentic experiences into the classroom.2 The portrayalsof students engaged in service learning are typically those of a group of students
c Society for Engineering Education, 2020 Entrepreneurially Minded Learning in a Physiological Signals Analysis Lab: Work in ProgressIntroductionLab courses are often designed with a specific objective that may or may not have a connectionto the real-world problems. In addition, labs often offer a rigid, previously tested protocol, givinglittle to no room for flexibility by the students. These lab exercises do not allow for curiosity orcreativity by the students and do not challenge their ability to reach beyond what is directly infront of them [1], [2]. The goal of this work is to change that pattern for application-oriented labactivities in the junior level Quantitative Physiological Signal Analysis
more explicit with students in the goals of their projects. The overall project designs inthis second attempt of the class showed an increase in overall technical feasibility, as well as anincrease in detail in their business canvas. Projects included ideas such as the use of abiodegradable plant based Styrofoam alternative, a method for recycling Styrofoam, a campuswide recycling program targeted at the dorms, and a BPA free liner for paper coffee cups. Thestudent feedback, taken via a post project survey indicates the project allowed students to drawconnections with their class work and a real world engineering problem. This project improved my understanding of engineering…This project was a valid example of real world engineering… This
agent’sinternal model of the system, which may or may not be shared by others. In fact, a functionalrationale for empathy is to be able to adopt the world view (or systems view) of another. Thatchange agent, however, finds some component of the world that does not seem right or as goodas it could be. The entrepreneurial literature would call this opportunity recognition (Byers et al.2011). They then focus on the difference between their perceptions of the real-world as it is, andan imagined-world as they hope it could be – noted as creativity or vision. The role of the changeagent is then to take actions to move the real-world model closer to their imagined-system model–noted as this change being the value proposition of the change agent.There is another
how to extrapolate from it • To learn basic probability and statistics about a business market • I learned that I prefer the engineering side, not the marketing side • Learned a lot about the application of probability and statistics to an engineering field • I have learned how statistics can be applied to the real world • I have developed an understanding of how to analyze data and come up with a solution to meet customer needs • I learned how to calculate probability in a number of ways that apply to a variety of situationsPlease comment on the things you liked about this module, if any, and why you liked them: • The way we used a real census to figure out the population growth in different regions
at various levels of the ‘core’ curriculum. EML modules were based on the themeof “Quantified Self” (QS). This is a new, exciting, real-world entrepreneurship opportunity thatuses wearable sensor technology to help people understand their personal health and wellness. Thegoal of this project was to develop teaching resources that used the QS theme to motivate EML ina variety of academic topics.During the first phase of this project QS modules were developed and implemented in fourbiomedical engineering (BME) courses at the freshman, sophomore, junior and senior levels.Direct and indirect assessment was used to gauge the effectiveness of modules at changingstudents’ perceptions and improving their entrepreneurial capabilities. Then, these
sensor networks, collecting/processing signals, definingsystem response, and controlling actuators. The concepts are covered in a just-in-time mannerand focus on solving real-world systems problems and demonstrating product evolutionary stepsof concept, research, design, and production. Hands-on technical sessions are accompanied byweekly workshops on entrepreneurship related topics.This comprehensive course aims to:‚ Foster entrepreneurship, invention, and innovation by enabling students to metamorphose their ideas to proof-of-concept systems for high-tech applications.‚ Promote lab automation and intrapreneurship to facilitate rapid migration of ideas from the concept to product stage and increase the quality and productivity of research
design, load calculation, report writing, and overallcommunication, not only with each other, but with their client. Table 5. Survey Results Average Dimension No Survey Question Rating 1 The real-world application motivated me to do my best work 4.6 2 Examined a customer’s needs throughout the project 4.1 Conveyed engineering solutions in economic terms throughout the 3
Beta Kappa graduate of Illinois College and a Bronze Tablet graduate of University of Illinois at Urbana Champaign where he received a Ph.D. degree in Mechanical Engineering. c American Society for Engineering Education, 2020 KEEN Engineering Skillset and Student Competition Teams: Creating Value Through the Co-Curriculum Engineering competition team projects provide students with the opportunity to apply learningfrom the technical classroom to real world, open-ended design projects. As Bland et al haveobserved, based on their research with students who participate on engineering competitionteams, “engineering competitions may act as a catalyst for students to learn how to
at the graduate level for the University of Florida College of Engineering. Page 22.586.1 c American Society for Engineering Education, 2011 Engineering Entrepreneurship: Learning by DoingAbstractThe University of Florida College of Engineering offers an entrepreneurship course targeted tograduate engineering students and working professionals of all engineering disciplines whichmimics, as completely as feasible in an academic environment, the real world experiences ofenterprise formation and growth. The course structure includes executive team formation,building the company, and
sustainable development, live andwork as global citizens, develop and implement complex systems, communicate, understandethics and social responsibility.29The value of the US-Denmark Summer Program lies in its careful facilitation of learners in acomplex space in conjunction with tangible consequence. Problem-based learning is effectivedue to extensive scaffolding associated with the pedagogy, allowing learners to navigatecomplex domains by reducing cognitive load.23 By moving toward entrepreneurially mindedlearning, the summer program includes real world application with accountability, offering aunique opportunity to accelerate and hone the development of process skills and practice of theglobal professional. The end result is enhanced efficacy in
the development ofcritical assessment tools to ensure that the space is meetings its intended goals of bridging thegap between classroom and real-world through hands-on engagement.Conclusion Since inception, the Aggie Innovation Space at New Mexico State University hascontributed to student retention and persistence by fostering innovation and entrepreneurshipacross the engineering curriculum, engaged corporate partnerships to ensure transferability ofknowledge gained within the undergraduate curriculum to real-world application, and hasestablished a network of collaborations across the academic institution. The space has become abridge between the academia and industry and, collectively, is contributing to the developmentof broad
make adaptations to suit students with less flexibleschedules, especially engineering students, reflected a commitment by faculty and administratorsto be entrepreneurial in seizing opportunities to develop the program.Engineering ChangesAs entrepreneurship activities proceeded in the Business Department, in the Engineeringdivision, a first-year introductory course intended to familiarize students with computerapplications for engineers was modified in 2013 to follow a new paradigm wherein coursecontent was presented paralleling a real-world engineering consulting project. Topic-specificlectures focused on requisite computer application, analysis and writing skills were paced withperiodic “business meetings.” Those meetings were related to a
curiosity, and fostersengagement. Applying the flipped-classroom in different course sequences also provides the firststep in converting the face-to-face to online course delivery. The flipped classroom method hasbeen applied by the COE to the online delivery of the freshman Introduction to Engineering(EE110) course [1].Engineers solve challenging, complex real-world applications. In recent years, universities areengaged in incorporating Entrepreneurial-Minded Learning (EML) into the engineeringcurriculum. “EML is not about start-ups, it is about thinking creatively and creating value forsociety” [2]. Since it is not easy to effectively build entrepreneurial skills within a single course,the university’s College of Engineering (CoE) decided to
, the operation ofour own Course Management System (CMS) as a fee-based self-sustaining business operation,our ongoing applied research projects for the mining industry and defense agencies, ourpartnerships with other colleges, universities, industry, and government, the creation of our ETAL fundraising unit, and the operation of the shop CART store.The vision of CART is to become a highly respected resource for innovative engineering andemerging technologies in the discovery of advanced research and design of applications thatdrive our economic viability, solve industrial problems, and strengthen economic security andnational defense.Our specific mission is to produce outstanding financial returns by providing efficient andeffective research
and IEEE. Page 14.114.2© American Society for Engineering Education, 2009 A Structured Approach to Innovation - A Classroom Experience in Inventive Problem Solving for Entrepreneurial ProgramAbstractThis paper describes a unique course on Structured Approaches to Innovation for LearEntrepreneurial Program in College of Engineering at the Lawrence Technological University.Lawrence Tech’s Lear Entrepreneurial Program offers the opportunity to work in a business-model setting to solve real-world engineering problems. Students in any of Lawrence Tech’sundergraduate engineering disciplines have the unique option to
member institutions. The Advanced E-Team andCourse and Program grant programs have been offered since the NCIIA’s inception in 1995.Designed to help generate and support the work of E-Teams (multidisciplinary teams of students,faculty, and advisors), these programs have filled a unique niche nationally and have generatedsignificant impact in educational and commercial terms as described below.Grants ProgramsCourse and Program grants strengthen existing curricular programs and build new programs ininvention, innovation, and entrepreneurship. They encourage development of creativepedagogical approaches that generate and deploy E-Teams, bringing real-life applications andopportunities into the classroom setting and beyond.Awarded twice yearly to