individual. This does not allow educators to see howtheir instruction changes a student’s ability to innovate. In order to meet the needs of theInnovation Bootcamp and other innovation educators, a test that measures an individual’s abilityto do activities across a greater part of the innovation process is needed.Purpose Statement The purpose of this project was to develop an innovation test instrument and perform aninitial validation. The test needed to cover a broader range of innovation skills defined by theInnovation Bootcamp curriculum and needed to evaluate individual students’ abilities atperforming each of the tasks outlined therein. This paper describes the development of the test,including analysis of the content domain
encyclopedia,Wikipedia. It can be used to engage students in authentic collaborative writing activities.Forte and Bruckman45 have given guidelines to develop curricula to support learning amongstudent authors in the Wikipedia environment. Moy, et al. 46 have successfully used Wikipediato enable students to work collaboratively, explore advanced concepts in Chemistry, and learncommunicating science to a diverse audience, including the public. Cole 47 has reported herfailed experiment at a graduate-level class project that was centered on editing Chemistry-related entries in Wikipedia. She inferred that in an educational context, social technologiesare perceived differently as compared with ordinary personal use which may have caused thefailure.While we
. International Experience i. Short term (summer, one month or less) ii. Semester iii. Year c. Service Learning Project d. Experiential Learning (internships) i. Number completed ii. List companies worked for: 13. What traits do you think employers were looking for in potential candidates during your job search? (mark all that apply) a. Apply basic engineering principles b. Solve engineering problems c. Consider several points of view and arrive at a conclusion d. Plan, organize, and complete a task e. Design and conduct an experiment f. Continuously learn new skills and
to assess the direct impact of entrepreneurship onengineering education. Not only the primary data would be speculative at best, but it useseconomic measures as indicators for academic success. The two do not have to beinterconnected. Rather, the assessment criteria should be more geared towards the impact ofentrepreneurship on the engineering skills of the students, such as their design thinking,teamwork, project management and economics. Although some engineering attributes are simpleto assess, such as communication and teamwork, there are very few verified tools that can assesscomplex attributes, such as investigation and design thinking. Nevertheless, having the impact onengineering attributes as a criterion will prove to be a more
creation of formal and informal entrepreneurship programs [2]. Students areexposed to business knowledge and entrepreneurial experience in project-based experiential 1formal coursework, student incubators, pitch competitions and mentorship opportunities underpracticing entrepreneurs. Shartrand, Weilerstein, Besterfield-Sacre, & Golding [3] have reportedthat, in 2010, more than half of ASEE-affiliated schools were exposing their students toentrepreneurship through formal coursework and/or extracurricular programs [3]. In the nearfuture, these numbers are likely to increase as more institutions begin focusing on developingentrepreneurially minded
is not easy to replicate in a classroom environment.8Our entire product development process involves hands on development experiences with realworld banking statements and earnings.E-Team formationE-Teams are groups of students working on an entrepreneurial project. Each student E-Teamwill strive to have a diverse selection of engineering majors and at least one software engineerper team. Teams do not require financial support and will create their product with sweat equity.The cost of our approach to the E-Teams is minimal. Therefore it is a just a matter of creativeeffort and marketing on the part of the E-Teams to improve their income stream for any neededfinancial support. Specifically, E-Teams are formed at the beginning of the course
, particularlycommunity service and humanitarian engineering projects, by creating intentional linkagesbetween the formal curriculum (e.g. developing global awareness) and these informal learningexperiences (e.g. engineering-related study abroad). Such linkages may be particularly effectivein helping develop students’ contextual awareness.” As engineering entrepreneurship education takes shape and continues to leverage co-curricular experiences for learning, Lattuca et al.’s findings suggest that a more in depth analysisof entrepreneurial co-curricular experiences in the context of the Terenzini and Reason’s collegeimpact framework is warranted. There is an organizational reliance on both entrepreneurshipacademic and co-curricular programs, required
gift. Success in mathematics can be achieved through hard work. 3. Would you say you are more interested in: People and Relationships Things and Gadgets 1Appendix: ENG1102 Entrepreneurial Intentions Survey - Fall 2017 4. For each statement below, please rate your level of agreement according to how you generally feel. Strongly Slightly Slightly Strongly Disagree Disagree Disagree Agree Agree Agree As a group member working on a project, I am often
practitioners and so maddening to inventors. Precisely following these rules for anyinventor, including inventors associated with entrepreneurship programs, may make thedifference between a successful invention and a failure. Page 11.807.2Utility The utility requirement is likely the most important and, from an engineering perspective,the easiest to define. The engineers working on a project typically know from their designspecifications whether they have been successful in creating the proper design. Almost bydefinition an invention must be useful and thereby have utility. Unfortunately, the legal standard is not as forthcoming. The
reforming our engineering educational system has been made. The challenge hasbeen how to make the needed change happen in the curriculum. New practices in teaching suchas inquiry- and project-based learning, experiential learning, and service learning10 as a way forlearning non-technical skills are now common.New changes in curricula and/or extra requirements from students can put pressure on thealready-packed engineering curriculum. The reform effort of the department of civil andenvironmental engineering at University of Vermont, described above, developed a series ofthree system courses to implement the reform. Students were displeased about the organizationof the newly designed systems courses.11 Some too-ambitious curriculum reform efforts
Projections & Forecasts .002 Risk Analysis .002 Fixed Costs vs. Variable Costs .000 Overhead .000 Venture Launch/Funding .0050 Venture Capital .003 Due Diligence .001 Overhead .000 Reporting .0050 Equity
against the uncertainty of these assumptions.Milestone PlanThe remainder of DDP consists of establishing milestones and a plan forhow to reach them.Each milestone tests one or more of the key assumptions. DDP is a learning approach to newventures or projects so there is a studied re-planning based on the knowledge gain/uncertainlyreduction at each milestone. Careful design of the milestone program will permit minimum risk Page 15.58.7to be taken prior to commencing with final implementation of the Blue Ocean opportunity.7. DiscussionOur process has been unique in two dimensions. These tools are traditionally applied in industrycontexts, not academic
discussions within their teams of six and dissectthe published material; explore the computational model; and examine the discussion questions.Each freshmen team is visited by an online mentor, upperclassmen who serve as part-time TAs,to help foster a local community of scholars, both pushed and supported to complement theirdeep foundational study with broader, integrative consideration. The fall sophomore semesterhas more student freedom in which they pursue a larger, self-guided project. Each module endswith the team “leader” (a rotating position) of a particular module posting the highlights of teamdiscussion to a course-wide board.EVS KEEN ModulesEVS KEEN Modules (4 in total) follow the basic EVS module structure, but add interaction withan
work.Practices that Promote Learning The author has discussed many of these ideas in his previous ASEE conferenceproceedings and publications (Narayanan, 2007 – 2011). From the literature focusingon frameworks and theories of learning, one can identify several general practices thatpromote learning for college students: • Social learning experiences, such as peer teaching and group projects, particularly those that promote group construction of knowledge, allow a student to observe other students' models of successful learning, and encourage him or her to emulate them (social constructivism, self-efficacy, learning styles); • • Varying instructional models that deviate from the lecture format, such as visual
. The authors measure studentattitudes at both the freshmen and senior level using an instrument developed by KingstonUniversity in the United Kingdom [12]. The survey asks 36 questions of students in sixcategories (creativity, leadership, problem solving, project work, career control and financialrisk) regarding their attitudes toward entrepreneurship. The authors administer this measure atthe freshmen and senior level.Beyond the measures for the student, the authors created measures for faculty and staff memberattitudes in the professional development workshops that are based upon Timmons and Spinelliwork [13]. For each of eleven attributes the instrument measures faculty self-efficacy (do facultyfeel able to teach key entrepreneurship
, Practice, and Strategy; Technology Commercialization Project; andan entrepreneurship elective, most likely Entrepreneurial Selling. This paper walks the readerthrough the development and delivery of the first course, Business Basics for Engineers and Page 15.253.2Scientists.Through fifteen years of engagement in entrepreneurship with engineers and scientists at WPI,and 13 years at two other institutions, the author found three key knowledge deficiencies –behavioral and leadership, customer orientation and marketing, and finance and accounting.While other gaps exist, virtually every engineer and scientist we encounter, whether student orprofessional
- norming - performing -adjourning summarize the team evolution and progress through each stage.The students were allowed to work in groups and discuss the assigned issues. They were quitesuccessful in identifying the correct answers and these group discussions enforced the keynotions of entrepreneurship, which up to this point were rather theoretical; they also allowed thestudents to categorize their own effort (students work in teams on a term-long project involvingproduct development for a global market) as entrepreneurial. As one student wrote:“…the film is illustrating how quickly a design becomes obsolete, how competitors will work onimproving and capitalising on a new design, and how the market is rapidly changing. I believethe film is
). 2. identify and develop their personal leadership philosophy and approach using written self-reflection and peer assessment. 3. be able to work in teams and use creative problem-solving to develop a project for the purpose of creating positive and sustainable change. 4. be introduced to the concepts of leadership beyond their academic studies (whether professional or personal), including entrepreneurship and intrapreneurship.The primary course topics include: ≠ History of leadership theories ≠ Currently practiced leadership models (e.g., relational, shared, situational, etc.) ≠ Individual responsibility and ethics ≠ Diversity and globalization ≠ Team building, working in groups, and inclusive practices
Engineering Education at Penn State. She holds a doctoral degree in educational psychology emphasizing applied measurement and testing. In her position, Sarah is responsible for developing instructional support programs for faculty, providing evaluation support for educational proposals and projects, and working with faculty to publish educational research. Her research interests primarily involve creativity, innovation, and entrepreneurship education.Prof. Elizabeth C. Kisenwether, Pennsylvania State University, University Park Liz holds a B.S.E.E. from Penn State (1979), and M.S.E.E. degrees from Massachusetts Institute of Technology (1981) and The Johns Hopkins University (1988). She worked in the defense industry for
-year engineering course and no correlation in the mid-level aerospace course. Correlation coefficients (ρ) are displayed on each plot. Individual data points represent data from a single student with stars representing those identified as high magnitude outliers for concept map score.of concept map submissions for the next iteration of this project, the assignment prompt has beenmodified to clarify the expectations for concept map creation. The prompt now requires studentsto start with the course title as the central topic and to create the concept map electronicallyrather than hand-written. We anticipate that these two changes will allow for easier scoring of theNC, HH, and NCL and make the determination of these components by raters less
Ph.D. in management and organization from the University of Oregon in 2002. Dr. Bryant has taught undergraduate, MBAs, graduate students in accounting, science and engineering as well as practicing technical managers. His primary focus is on improving people management skills including: personality, conflict, negotiation, motivation, supportive communication, and many more. He has conducted research projects at Microsoft, Nike, Planar and published articles in leading management journals. Scott’s recent research has focused on leadership, growth mindset and emotional intelligence.Dr. Brock J. LaMeres P.E., Montana State University - Bozeman Dr. Brock J. LaMeres is a Professor in the Department of Electrical &
has 2.4% land, 4% water and 1% forest that is harboring 16% of globalpopulation, and the only solution is that the 16% population thinks innovatively and brings insustainable improvements in life and living standards. We also presented the fourteen grandchallenges [11] and the initiatives of the Indian National Academy of Engineering (INAE) [12] totackle the Indian challenges. We presented a few patent-worthy projects executed by sophomore students in anothercollege in the same region. The examples included a multilingual mobile-based social mediaapplication for farmers, automatic detection of potholes on roads and informing their locations andsizes to municipal authorities, automatic detection of traffic violations, and a platform for
andsought-after opportunity to work within the TVC. Each member of the clinic receives class creditfor participation, but equally as important, is integrated directly into the operations of a for-profit Page 12.484.12transaction venturing company.In addition to reviewing deals and presenting their due-diligence findings to the group, ATIFalso engages students from other entrepreneurship projects on the ASU campus. For example,ASU is fortunate to have been awarded an endowment to offer $10 thousand to $20 thousandseed funds each year to students, allowing them to pursue small ventures they’ve created. Calledthe “Edson Student Entrepreneur
Innovative Research(SBIR) and Small Business Technology Transfer Research (STTR) awards and projects moregenerally assist faculty in developing knowledge and contacts with federal agencies which arehelpful in obtaining additional research support. These programs also require an industrialpartner which can also be supportive of additional research support and strategic partnershipswhich can lead to additional funding. The traditional success path for engineering faculty has been to obtain federal, state, andindustry research support via research proposals leading to research contracts and grants. TheSBIR and STTR programs provide an additional path for success from these traditional sources.The more entrepreneurial faculty and their graduate
Paper ID #8627Creative Go-Getters: Antecedents of Entrepreneurial Activities in Engineer-ing UndergraduatesDr. Sarah E Zappe, Pennsylvania State University, University Park Dr. Sarah Zappe is Research Associate and Director of Assessment and Instructional Support in the Leonhard Center for the Enhancement of Engineering Education at Penn State. She holds a doctoral degree in educational psychology emphasizing applied measurement and testing. In her position, Sarah is responsible for developing instructional support programs for faculty, providing evaluation support for educational proposals and projects, and working with
protection, corporate security, and partner compliance solutions for multiple Fortune 500 companies in the consumer packaged goods, energy, financial services, hospitality and technology industries. While at Booz Allen Hamilton, Dr. Green provided technical and programmatic direction to the DARPA Special Projects Office (SPO), Army Research Lab (ARL), Defense Technical Information Center (DTIC), Information Assurance Technology Analysis Center (IATAC), and other DoD clients for advanced prototype systems research. He performed analysis tasks and provided strategic vision for his clients in the areas of survivability analysis, roadmap studies, threat analysis, and technology simulation and modeling. Dr
innovation. Journal of Engineering and Technology Management. 2000;17:321-55.11. Dyer J, Gregersen H, Christensen CM. The Innovator's DNA: Mastering the Five Skills of DisruptiveInnovators. Boston MA: Harvard Business Review Press; 2011.12. Robinson MA, Sparrow PR, Clegg C, Birdi K. Design engineering competencies: future requirements andpredicted changes in the forthcoming decade Design Studies. 2005 26:123-53.13. Turley R, Bieman JM. Competencies of Exceptional and Nonexceptional Software Engineers. SystemsSoftware. 1995;28:19-38.14. Cohen D, Crabtree B. Qualitative Research Guidelines Project. Princeton, NJ 08543: Robert Wood JohnsonFoundation; 2008. Available from: http://www.qualres.org/HomeInte-3516.html15. Patton MQ
innovation projects for a wide range of companies such as Siemens AI Lab, Munich Re, Fraunhofer Venture and BMW. Additionally, he co-founded HIGGS Live Inc., a company developing a software for mobile livestreaming.Dr. Shannon Katherine Gilmartin, Stanford University Shannon K. Gilmartin, Ph.D., is a Senior Research Scholar at the Michelle R. Clayman Institute for Gender Research and Adjunct Professor in Mechanical Engineering at Stanford University. She is also Managing Director of SKG Analysis, a research consulting firm. Her expertise and interests focus on education and workforce development in engineering and science fields. Previous and current clients include the American Chemical Society, the Anita Borg Institute
years teaching fourth grade in Baltimore as a Teach for America corps member. After her teaching commitment, she moved to the American Institutes for Research where she worked with Department of Education clients on several research and evaluation projects. Monica holds a B.A. in Business Administration from the University of Oregon Page 13.668.2© American Society for Engineering Education, 2008 HILLMAN ENTREPRENEURS PROGRAM - CHALLENGES, IMPACT ON A DIVERSE POPULATION, AND EARLY OUTCOMESAbstractThe University of Maryland (UM), Prince George’s Community
problem that needs resolution and action. It puts the students in the manager’s shoes,which increases their involvement in the case1.It is common practice to understand the need of the customers before starting a project. Theliterature on writing a teaching case recommends thinking about or understanding the needs ofthe customer – the student – in terms of what theories will be conveyed or taught through thecase, how it will fit into the course, and how the instructor will use it for teaching purposes. Anextensive amount of effort is spent on identifying a case that will meet the requirements of theinstructor. Once the case is identified, the instructor needs to see if the case is sufficientlyinteresting and rich in terms of the contextual