“capstone courses” which build on these basic concepts. This is where wesee a great deal of originality in the curriculum when compared with the manufacturing programsof other institutions. As the students approach their final training in machining, electronics, CAD, materials,plastics production, quality management, etc…they are required to take a three-course capstonesequence that follows a product’s development from conception through production. The firstclass, develops the product concept, the second course, takes that concept and plans itsproduction and the final course produces and sells the product. The first class, MFG 316 Design for Manufacturing and Tooling, is where the productdesign is born. Students generate product
formulate business plans and execute them perfectly. However, thecommunity has realized that startups are fundamentally different that large companies, leading to theconcept of the “lean startup”[7] which says that new ventures should quickly and cheaply validate orinvalidate hypotheses through delivering the minimum viable product to potential customers well beforecommitting to large investments and long timeframe development efforts. This approach essentiallyamounts to an application of the scientific method in a new venture context[7].The nation’s 160,000 libraries empower the innovation and entrepreneurship ecosystem. Libraries aredigital decentralized networks that empower innovators from all facets of society through access toknowledge
significant experience withmaker projects and research-based instructional strategies, and brings this to bear to helpparticipants have the best shot at a successful project plan. It is also part of the pedagogy sessionsthat participants should plan to implement their new project at least three times before it’s at itspeak of efficacy.The goals for participants following completion of the B-FAB program are that they will:1. Have drafted an activity or project for a class they teach that leverages some of the skills learned in the program for EML.2. Understand how the capabilities of Maker Space equipment can support EML, including the strengths and limitations of the equipment. Each participant will be trained on at least two pieces of
. Agile software development emerged as the most prominent approach to softwaredevelopment around the turn of the millenium. Still widely-adopted, Agile contrasts withprevious approaches that had rigid planning by emphasizing adapting quickly to evolvingcustomer needs. Agile enables responding to change by operating on short intervals of deliveringsoftware to the customer, eliciting feedback, and adjusting accordingly. The Agile principles [5]include: “Business people and developers must work together daily throughout the project, [...]the most efficient and effective method of conveying information to and within a developmentteam is face-to-face conversation, [...and] our highest priority is to satisfy the customer throughearly and continuous
teams developing new product ideas. Each team carries their idea through toa working prototype, and manufacturing and business plans. They also submit a proposal forfunding and a draft patent application. In its current form, the class project is usually also thebasis for students’ senior thesis.Structure and Content of the current courseC&NPD is now a two semester senior design course open only to Mechanical Engineeringstudent. Students are expected to enroll for both semesters. This class covers the engineeringdesign process by engaging teams of students in design activities that results in useful and novelproducts. We complete all stages of the typical product design process in this class, and performthe activities required by each stage
materials producers. Because these materials find themselves as partof a product they are dependent on product cycles and market conditions of a downstreamcompany. While students learn that the basics of product planning and the innovation cycle thatestablishes incumbent and emerging companies in the marketplace, the intent is to have studentunderstand that these downstream market influences greatly influence the upstream materialsupply and value chains of a materials producer.Factors and Policies Influencing Materials InnovationMaterials do not move easily from invention to the marketplace and thus can take severaldecades.1 Furthermore, once in use, a technological innovation is subject to diffusion pressuresas copies or similar competing products
26.1327.1 c American Society for Engineering Education, 2015 Reinforcing Communication Skills through Participation in a Team-based Weekly Innovation ChallengeIntroduction The Weekly Innovation Challenge (WIC) is an opportunity for students, staff andfaculty to engage in competition while honing their ability to think, act and pitch new ideas.WIC leaders plan and run the competition to help participants learn important lessons in teamcollaboration, communication, innovation and opportunity recognition. These four themesconstitute the fundamental learning objectives envisioned for WICs. This team-based competition has been an ongoing event at the engineering school of aprivate
. Entrepreneurship education has evolved since it was first taught in business schools in themid-1940s. As it continues to be incorporated across disciplines, entrepreneurship education hasseen a number of innovations and has benefited from advances in student learning6.Entrepreneurship education has expanded well beyond single business plan classes. Recently,engineering colleges have been the most aggressive at incorporating entrepreneurship at differentlevels, from individual course development, certificate creation, to program development3,4,7. In2010, over 50% of ASEE engineering programs offered entrepreneurship opportunities to theirstudents and approximately 25% had a more structured opportunity, such as a minor7. While thecurriculum and delivery
the university IP committee.One of the three projects involved automotive speed bumps. Speed bumps are designed to manage trafficpatterns by encouraging drivers to slow down and avoid jarring their cars. These are commonly made using amound of paving material laid across a roadway. Although simple in concept they have a number oflimitations. The use of paving materials requires special planning and labor to install and substantially morelabor to remove. The performance is highly dependent on geometry, but this can be hard to control. Evenslow drivers must endure the full motion of the bump, albeit at a slower pace. An alternate method forconstructing speed bumps was devised that would use a non-Newtonian fluid housed inside a rubber
proposedsolutions and guide them toward developing the best possible solution. Although this step of theproposal development process would not exist in an industry setting, it was useful from apedagogical standpoint and supported the outcome of persisting and learning from failure, whichis one of the outcomes associated with the entrepreneurial mindset3,7,8.In the written proposal, each “company” had to list the required materials, show total costincluding labor, perform a break-even analysis, illustrate the circuit design and schematics,verify the designed circuit through simulation, plot the voltage-temperature relationship of thedesigned circuit, establish a detailed testing plan, investigate proper device housings, propose atime schedule for delivery
to an organization. In the finalmarketing class period we focused on globalization to help students understand that what worksin one market does not necessarily work in another market, and there are other issues that need tobe addressed, as well.The initial outline in the Accounting and Finance area was aggressive. In addition to teachingstudents about income statements, balance sheets, and cash flow statements, along with theinterconnections, we planned to include both horizontal and vertical analysis and budgeting.Managing cash flow and various methods of financing and the time value of money were part ofthe outline, as well.How It Played OutClearly what one plans is not always how things play out. This section of the paper will reviewwhat
.59 .27 .033a INI-1: Experimenting (All) 168 4.23 .72 61 4.41 .56 .18 .132b INI-2: Pitching (Paired) 41 3.15 1.20 41 3.23 1.13 .09 .569a INI-2: Pitching (All) 168 3.26 1.08 61 3.39 1.08 .13 .385b INI-3: Resourcing (Paired) 41 4.17 .70 41 3.89 .79 -.28 .061a INI-4: Planning (Paired) 41 3.68 .91 41 3.62 1.09 -.06 .842a INI-4: Planning (All) 167 3.55 .98 61 3.75
industri-al electronics’ concepts of sensing, counting and process control; 3) have them participate as ateam in a de novo real-world design of a large and complex process of humanitarian interest; and4) teach students about cost-accounting and sequential manufacturing planning as a precursor todeveloping a business plan. Its design goals were to 1) implement a method to prevent overpay-ing customers at intake and to improve the accuracy of the count when the recyclables werereturned to the various vendors; 2) use commercial electronics and design-for-manufacturingconcepts so that the products would be reliable and field-maintainable by the host’s staff; and 3)prepare and assemble detailed product manuals for use by maintenance
Pontificia Universidad Católica (UC), themost prestigious and oldest engineering schools in the country. A key difference between thesetwo institutions’ proposals is that UCH developed its own strategic plan, while UC created aconsortium with Universidad Técnica Federico Santa María (UTFSM), another prestigiousinstitution within the region. By comparing both strategies, this investigation seeks to understandcurricular and organizational change in selective institutions after the first years of the designingand implementation of the program. As a conceptual framework, we ground our work in the richliterature of change in engineering education, in particular the branch that studies national effortsand coalitions for change. Our data set consists of
papers indicated that their learning exceeded the traditional integrativecoursework (each student practicing their trade exclusively) and indeed created a betterunderstanding of the processes necessary for firms to be economically successful.One specific example of a course that requires students to develop innovative ideas isTechnical Practicum (ENTC 4600). In this course students at the end of their degreeprocess are mixed into groups from different concentration areas. These groups arenormally made up of 6-8 students from Electronics, Bio-Medical, Construction,Surveying, Manufacturing and Digital Media. In this course the students are required toact as a group process team to define, design, plan and cost a product. More emphasis isplaced on
metropolitan region.To document this effort and facilitate its broader adoption, this paper will provide a detaileddescription of the project, indicating what is being planned, designed, and/or constructed, theissues/opportunities to be addressed, and expected outcomes and deliverables of each of itsconstituents.Project DescriptionWith New York State funding from the Empire State Development Corporation, the SoECS ofNYIT is launching a new Entrepreneurship and Technology Innovation Center (ETIC),www.nyit.edu/etic, to foster the School’s ongoing industry-academic partnerships.The Center is being created with the assistance of an Advisory Board made up of members ofindustry, government, and the venture capital community, who have agreed to work on
engineering disciplines. The plan is for three of the six collaboratinguniversities to host an enrichment opportunity over three consecutive summers that focus onentrepreneurial education themed to the unique attributes of the host city. The first summerenrichment program was hosted at Lawrence Tech University who partnered with The HenryFord in the Detroit metro area. The first camp was focused on exploring creativity, innovation,and ingenuity as it relates to the American experience and manufacturing. In addition to learningobjectives, a goal of the program is to demonstrate the curricular enhancement of engagingmultiple institutions in interdisciplinary problem solving and to inspire students by showing themthe history of innovation in technology
innovation and an entrepreneurial mindset fortechnically oriented people (average score > 4). This was the case for views that (i) technicalcontent from the class can be applied in innovative and entrepreneurial ways; (ii) there is a strongcorrelation between outstanding written and oral communication skills and success – even fortechnically oriented people; (iii) it is important for a technical person to a have deepunderstanding of the end customers’ needs. Additionally, there was agreement on (iv) beingmotivated to pursue great ideas with passion and tenacity, and (v) valuing non-conventional,open-minded, lateral thinking and planning to routinely try to think that way. For these, therewas modest increase in agreement following the project in
in Technology Entrepreneurship that is jointly delivered by the Edward E. WhitacreJr. College of Engineering and the Rawls College of Business Administration. We believe that aGraduate Certificate in Technology Entrepreneurship is the logic next level needed to promoteentrepreneurial spirit. We analyzed all graduate courses offered from the colleges ofArchitecture, Arts and Sciences, Engineering, Agricultural Sciences and Natural Resources, andBusiness and designed a 12 credit-hour graduate certificate. These courses provide tools,objectives, case studies, strategies, and business plan developments, so every willing student canapply them to develop new opportunities at any entrepreneurial level. This study introduces across-campus
Entrepreneurship Program, which was started by an ad-hoc committee to provide theorganizational framework for building resources and infrastructure to promote entrepreneurialendeavors on campus and in the community. Co-chaired by the authors, the committee engagedwith campus and the regional business community to devise an action plan. The three pillars ofthe plan included a faculty entrepreneurial learning experience, developing a makerspace, andenhancing outreach to the public and private business community. The focus of this paper is onhow the makerspace was developed, challenges that were faced and overcome, initial results,lessons learned, and future direction.Makerspace DevelopmentThe overarching goal for the makerspace was to create and foster a
entrepreneurialmindset through undergraduate learning experiences.The Theory of Planned Behavior (TPB) serves as a starting point for answering this question.TPB suggests that becoming an entrepreneur is a planned behavior, and entrepreneurialintentions often precede entrepreneurial behavior. Maresch et al [6] have documented that EEcan contribute significantly to the development of entrepreneurial intentions in students. EEhelps to nurture an entrepreneurial mindset among students, a fact that has been documented forengineering students [7]. Kriewall and Mekemson [7] expand on this change in mindset byillustrating the dimensions of an entrepreneurial engineer through their KEEN pyramid (seeFigure 1). The pyramid indicates four core attributes of an
Education Society of the IEEE (IEEE-EdSoc). She is also Chair of Intersociety Cooperation Committee of Education Society of the IEEE (IEEE-EdSoc) since 2011, Co-Chair of Working Group ”Ingenieurp¨adagogik im Internationalen Kontext” in IGIP (Internationale Gesellschaft f¨ur Ingenieurp¨adagogik) since 2002, Member of Strategic Planning Committee of Education Society of the Institute of Electrical and Electronics Engineers, Inc (IEEE-EdSoc) since 2009 and Board Member of ”Global Council on Manufacturing and Management” (GCMM) since 2004.Prof. Claudio da Rocha Brito, Science and Education Research Council Dr. Claudio da Rocha Brito is Professor of Electrical and Computer Engineering. Currently is the Pres- ident of
opportunities. 2. Organize, plan, and manage a long term engineering project within a team environment. 3. Identify and communicate the value of a design in terms of economic, professional, personal, and societal value. 4. Translate customer feedback into design specifications. 5. Utilize a systematic design process in order to bring a project to fruition. 6. Identify and utilize technical tools and skills needed to create a viable design solution. 7. Account for cost, value, and market implications at all stages of development. 8. Communicate design status and results to all stakeholders in verbal, written, and public presentation formats at appropriate points in the development timeline.Once these learning objectives were
also be used for the purpose. We plan organizing narration of life stories ofsuccessful and not successful entrepreneurs, which could be through in-person interactions, overvideo calls, or through audio visual recordings. This could also take care of the motivation ofprospective student entrepreneurs.Facilitating idea selection Once students develop proper understanding of entrepreneurship and commit to followthat path, we need to help them select proper ideas. We need to make them aware of thenecessity of first choosing a challenge domain and then developing a technological solution for aproblem in that domain, and not the other way around. Towards that, we need to organizebrainstorming sessions on challenges in different domains to
aims to shed light to one of the most important aspects of these programs: designprojects, and their handling within the curriculum. The overall goal of the paper is to provideguidance for institutions with similar programs.Assessment Planning and ApplicationWith several years of experience in using project-based learning in the curriculum, and havingadopted the above explained types of projects to teaching and learning, an instrument forassessing the effectiveness of different types of projects was designed and used for this study.The assessment instrument is presented in the Appendix. In this paper we present thepreliminary data set collected using the instrument and its analysis.The last question of the instrument was quantitative, and
, Rose-Hulman Institute of Technology Tom Mason is Professor Emeritus of economics and engineering management at Rose-Hulman Institute of Technology, where he has been teaching since 1972. He was founding Head of the Engineering Man- agement Department and its M.S. degree program and founding Vice President for Entrepreneurship & Business Planning of Rose-Hulman Ventures and has also served Rose-Hulman as Head of Humanities and Social Sciences, Vice-President for Administration and Finance, Head of Engineering Management, and Interim Vice President for Development. While on a three-year leave from Rose-Hulman, Mason served as CFO and CEO of a 140-person network management systems business. In 2007-08, he used
, Accomplishments against goals for the previous month, Deviations from plans, Critical issues, and Goals for the next month.It is anticipated that this explosively collaborative approach to meeting the goal of instilling theentrepreneurial mindset into undergraduate engineering students will continue to evolve. At thistime there are two more potential dense networks of KEEN institutes that are planning proposalsfor innovative and collaborative work, and multiple additions to the numerous dense webs (moreon this under “Ancillary Activities”).The next crucial step is to assess the effectiveness of this approach to collaboration. Assessmentof the student learning objectives is critical, certainly, but so too is the assessment of how theKEEN
leading network technology providers and driving marketing efforts for op- tical, access and data products developed by Fujitsu. Rodney was Chairman of the T1X1 Technical Sub-Committee (the organization responsible for SONET standardization) from 1990 through 1994. He has been active in SONET’s National and International Standardization since 1985. In addition, Rodney has published numerous papers and presentations on SONET. Rodney began his career with Fujitsu Network Communications in 1989 as the Director of Strategic Plan- ning. He also held the positions of Director of Transport Product Planning, Vice President of Business Management, Senior Vice President of Sales Management, Senior Vice President of Manufacturing
. The possibility that children have a nurturing space toplay and learn through football went from possibility to an afternoon soccer camp forchildren. Page 26.89.6The next step to make possibility happen is to enroll people into possibility and together workon a project. The newly declared possibility is shared with others in a way that inspires themand enrolls them into this possibility. Inspired by this possibility, people gather to brainstorma project, event, program or initiative. Teams are formed, a plan is laid out, and people getinto action driven and motivated by possibility.2.3.3 The steps to create possibilityThere are six steps to
are then required to take several developmental (pre-freshman, non-college)mathematics courses before they are allowed to take the math courses needed for their majors.The PGCC Program Director has found that many students do not prepare for the mathematicsentrance exam, or have a weak mathematics foundation, and thus are being placed intodevelopmental math courses – which increase the number of classes that must be taken at PGCC.Additionally, a review of scheduling plans late in the first year revealed that some students atPGCC who had a particular concern about passing required mathematics classes did not attemptthe classes, and instead, choose to fill their schedules with other classes. This strategy slowedtheir progress toward completing