[31].A 1996 work by Lee [32] concluded that U.S. academics in the 1990s were more favorablydisposed than in the 1980s toward closer university-industry collaboration, but were concernedabout the impact of close university-industry cooperation, which was viewed as likely tointerfere with academic freedom—the freedom to pursue long-term, disinterested, fundamentalresearch. The findings indicated the challenge to creating the right balance between these twocompeting concerns. The NSF report “Impact of Transformative Interdisciplinary Research andGraduate Education on Academic Institutions” cited the need for institutional support of faculty,new mechanisms for promotion and tenure collaborations, and better ways of organizing theinstitution to
, "Promoting enterprising: A strategic move to get schools' cooperation in the promotion of entrepreneurship," in Handbook of Research in Entrepreneurship Education: Contextual Perspectives, Cheltenham, UK, Edward Elgar, 2007.[5] T. Astebroa, N. Bazzaziana and S. Braguinsky, "Startups by Recent University Graduates and Their Faculty: Implications for University Entrepreneurship Policy," Research Policy, no. 41, pp. 663-677, 2012.[6] D. Maresch, R. Harms, N. Kailer and B. Wimmer-Wurm, "The impact of entrepreneurship education on entrepreneurial intention of students in science and engineering versus business studies university programs," Technological Forecasting and Social Change, no. 104, pp. 172-179, 2016.[7] T. Kriewall and K
research question. The lack of a standard methodology makes it difficult tocompare research and findings in the same field. The EAO is a well-designed multivariateinstrument for measuring the students’ entrepreneurial attitude. We would like to update andenhance the instrument, and collect data broadly across disciplines. From which we can set up anormative score and explore if it can be used to identify students with entrepreneurial inclinationand correlate that to future success in entrepreneurship programs (e.g. the SAT is normalized to amean score of 500, with one standard deviation points at 400 and 600. SAT was validated forpredicting students’ first year success in college). That might be an additional tool for theprograms to identify and
students, which are included among necessary entrepreneurial skill sets, andunderstand how and why these skill sets change over their undergraduate matriculation.Our research will report on an initial study of the impact of first-year engineering courses on thechanges in entrepreneurial mindsets of first year engineering students. Entrepreneurial mindset inour study is operationally defined as a more growth orientated mindset versus a fixed orientatedmindset. This operational definition and the accompanying mindset measurement instrument wasdeveloped and validated by Carol Dweck of Stanford University. Based on Dweck‟s researchresults we assume a growth mindset is a reasonable surrogate for a student engineer‟s creativeand innovative or
multi-cultural and multi-disciplinary settingthat provides the basis for robust and sustainable solutions. In this proceeding, we present ourobservations, challenges, and learnings garnered over eight years of hosting the summer schooland detail the current program design, which has evolved to reflect lessons learned.1. The ProgramThe US-Denmark research and education program, funded for the first three years by the DanishAgency for Science, Technology and Innovation and the following five years by US-NSF PIRE,is a cooperative and collaborative partnership between two US universities: Universities ofCalifornia, Santa Cruz and Davis (UCSC, UC Davis), and two Danish universities: AalborgUniversity (AAU) and the Technical University of Denmark
the College of Integrative Sciences and Arts at Arizona State University. Marvyn’s research interest include Latino/a Career Development and Multicultural Counseling Competencies. For instance, his research examines environmental and socio-cognitive variables associated with academic attainment among Latino/as in higher education.Wen Huang, Arizona State University PhD. student, Engineering Education Systems and Design (PhD) The Polytechnic School Ira A. Fulton Schools of Engineering Arizona State UniversityDr. Ann F. McKenna, Arizona State University Ann F. McKenna is a Professor in the Ira A. Fulton Schools of Engineering and Director of The Poly- technic School at Arizona State University. Prior to joining
efforts that acknowledge learner diversity, and understand their effects in students performance. Isabel received her professional degree in biological engineering at the Pontificia Universidad Cat´olica de Chile and her MA in policy, organizations and leadership studies at Stanford Graduate School of Education.Dr. Constanza Miranda Mendoza, Pontificia Universidad Catholica de Chile Constanza Miranda holds a PhD in design with a focus in anthropology from North Carolina State Uni- versity. While being a Fulbright grantee, Constanza worked as a visiting researcher at the Center for Design Research, Mechanical Engineering Department, at Stanford. Today she is an assistant professor at the P.Universidad Cat´olica de Chile’s
15% Research Paper 10% Discussion Boards (6 EML modules) 9% Research Presentation 5% Research Paper (EML Module) 10% EML Modules (none) 0% Research Presentation (EML Module) 5% TOTAL 100% TOTAL 100% Note: Total Percentage of EML Modules: 24%Table 1. EE 463 Before and After Percentages of Student DeliverablesIn Table 1, the reduction of percentage weight of nine percent in the three exams provided roomfor six discussion boards. Each discussion board is worth 1.5 percent. The reasons for onlinediscussion boards are described later in the
University College.Georgina Johnston, University of Maryland Georgina Johnston is doctoral student in counselor education at the University of Maryland, College Park. She is a graduate assistant with Hinman CEOs with responsibilities for research and teaching assistance. Georgina earned a BA of History and Political Science from Marquette University and a MS of School Guidance and Counseling from Fort Valley State University. Page 13.48.1© American Society for Engineering Education, 2008 A Holistic Performance Measurement System for Entrepreneurship
view might overestimate thedifferences between the two and miss the common ground that provides the potential for the kindof regulatory coherence that would be required to make the TTIP and other forms ofinternational cooperation possible. As we hope this paper makes clear, it takes a great deal ofresearch and analysis to understand the complexities of differences in legal and regulatorysystems and how those systems relate to differences in values and preferences. From a curricularpoint of view, we cannot reasonably expect to provide students with all the kinds of knowledgethey would need to collaborate across all polities globally (any more than we could expect themto learn all the languages their engineering collaborators might speak). We
Administrative Sciences and Sociology at the Universities in Kiel, Bielefeld (Germany), and Lancaster (UK). Doctorate in Sociology from the University of Bielefeld. Worked from 1992-2000 with Academy for Technology Assessment in Baden-Wuerttemberg (Germany). Since 2000 professor for Technology Assessment and Social Science Innovation Management at University of Applied Sci- ences Darmstadt. From 2010 to 2013 Vice President for Research and Technology Transfer since 2012 Head of the Graduate School Darmstadt. c American Society for Engineering Education, 2018 The T-Shaped Engineer as an Ideal in Technology Entrepreneurship: Its Origins, History, and Significance for Engineering EducationFrom
leverages his responsibilities for and experience with; industrial sponsored research contracting, technology transfer, startup business development, corporate relations into a bridge to student entrepreneurship, innovation and experiential education activities. He has taught undergraduate and graduate courses on technology commercialization and intellectual property law, is a licensed Patent Agent, holds a Ph.D. in environmental engineering, and a partner in a Michigan- based manufacturing company. c American Society for Engineering Education, 2016 Integration of Innovation and Entrepreneurship Ecosystem Elements – The Whole is Greater than the Sum of the PartsAbstractAt Michigan
: The program accepted some students who had terminal (non-transferable) degrees. Students who were enrolled in terminal (non transferable) degrees were advised they would need to change their majors, but were faced with the prospect of additional time at PGCC or UM as they completed requirements for a traditional bachelor’s degree. One Hillman Entrepreneur graduated with the two-year engineering tech degree and decided he needed to get a full-time job after earning that degree so he could support his family. The students are regularly challenged by conflicting responsibilities among jobs, parenting and family commitments. Some employers do not give students the flexibility to take afternoon
to the private sector, but also for enabling the near-term success of students who graduate from the program.Entrepreneurial Board The dual-degree program's start-up involved the cooperation of 20 public and privatepartners, including Oak Ridge National Laboratory (ORNL), large corporations, smallstart-up corporations, and state and local officials. Selected members of these partners(Table 1) were involved in the following activities: ≠ evaluating student projects and advising the student teams; ≠ offering the student teams technical and business expertise; ≠ contributing intellectual property (ORNL alone has a portfolio of over 1000 patents) and project ideas; ≠ serving as guest lecturers in graduate product
general similarities,praise and recognition for cooperation and collaboration—protects the leader’s interest. Peopleare not so influenced by receiving advice from the people they like but by the knowledge thatthis person likes them42. The leader’s job, however, is not to invent or manufacture similarities orcooperative mutual goals, it’s to identify where the similarities naturally exist in all relationships.Everyone benefits. We relax at work when we are liked.Best practice during next research steps would be conducted to replicate the gender-compositionof the group component in the team finding (see above section C) and modify the questions andadditional research manipulations to uncover the meaning of gender in terms of emotionalresponses to
logically teaches engineering students to be entrepreneurs,yet most will work for medium to large sized corporations with cultures, processes andorganizations that are far different than those of small entrepreneurial organizations. IfAmerican universities are to prepare highly innovative engineers for the corporate worldengineering faculty need to understand innovation and intrapreneurship (“i-ship”) in thecorporate context. Through a grant from the Kern Family Foundation, four universities (Baylor,Dayton, Detroit Mercy and Villanova) partnered on such a study as a step toward developingcurriculum that prepares undergraduate engineers to be more effective innovators andintrapreneurs in corporations. The overall collaboration of these four
Paper ID #29351The Relationship between Teamwork and Innovation Outcomes in anEngineering Thermal Science Course: An Entrepreneurial MindsetSimulationMs. Thien Ngoc Y Ta, Arizona state university Thien Ta is a doctoral student of Engineering Education Systems and Design at Arizona State University. She obtained her B.S., and M.S. in Mechanical Engineering. She has taught for Cao Thang technical college for seven years in Vietnam. She is currently a graduate research associate for the Entrepreneurial Mindset initiative at the Ira A. Fulton Schools of Engineering at Arizona State University. Her doctoral research focuses on
particular presentations but also understand how to do similar research. • Ideas for startups: Many students in the program have ideas for how a particular new/re- cent technology can be used as the basis of a new startup. Indeed, many students are first attracted to NEWPATH because they have such ideas, do not know what to do with them, and want to be able to discuss the ideas with others who might have more experience with startups than they themselves have. The sessions at which these presentations are made tend to be the ones that draw the most active participation from all students. The degree of ca- maraderie and cooperation that students display in such meetings in helping each other hone their understanding and
marketsand understanding customer needs. They also learned to appreciate each other’s disciplines.There were problems, however. It was difficult to get the students to work together (we call it the Page 12.681.2junior-high dance syndrome), the students tended to over optimize their components withoutregard for the product as a whole, and they did not fully appreciate the constraints of workingwith existing intellectual property as well as existing engineering and manufacturingconsiderations.Moreover, the class provided insight, stimulation, and an opportunity for faculty to collaborate inthe design, development, and execution of a course that
increase in mentorship,entrepreneurial workshops and competitions. VII. Future WorkPrevious studies have proposed different methods of assessment for the impact ofentrepreneurship education on engineering students (Upton, Sexton, & Moore, 1995; Wheeler,1993). Some researchers have suggested using the ratio of entrepreneurs among engineeringalumni to entrepreneurs in comparison with business or general alumni population. Others usedthe number of start-ups founded per engineering alumni within x years after graduation incomparison with those by business or general alumni population. Some even suggested using taxdata to compare their household income. While entrepreneurship is important for the economy,these criteria may not be the best way
Through a Humanistic Lens” in Engineering Studies 2015 and ”A Game-Based Approach to Information Literacy and Engi- neering in Context” (with Laura Hanlan) in Proceedings of the Frontiers in Education Conference 2015. A classroom game she developed with students and colleagues at WPI, ”Humanitarian Engineering Past and Present: Worcester’s Sewage Problem at the Turn of the Twentieth Century” was chosen by the Na- tional Academy of Engineering as an ”Exemplary Engineering Ethics Activity” that prepares students for ”ethical practice, research, or leadership in engineering.” c American Society for Engineering Education, 2017 Negotiating a Nineteenth-Century Solution AbstractThis
includedwithin a class or the types of activities, as described in the concepts associated with the “how”branch, that could be incorporated into the classroom environment to encourage students’building an EM.Another potential application relevant to EM research would be to use the EM master conceptmap as a starting point for understanding the differences that exist between differentpopulations that are in the process of developing an EM or have been identified as having anEM. Examples include making the comparison between concept maps from expert EM facultyand practicing entrepreneurs/intrapreneurs or perhaps comparing the differences in the EMconcept maps generated by first-year students with those that are about to graduate from theirundergraduate
” passive lecture methods. These pedagogies include challenge-basedlearning (e.g., problem-based learning (PBL), project-based learning, case-based learning,inquiry-based learning)1 and a multitude of active/collaborative techniques (e.g., think-pair-share,quick think, jigsaw, and gallery walk). All of these learning methods excel in student learning ofcontent as well as a variety of process skills such as critical thinking, higher-level reasoning,differentiating views of others, and teamwork.2, 3 They are also highly effective with individualstudent accountability. In addition, they have proved to be successful pedagogies within STEMeducation, in particular with regards to achievement, persistence, and attitudes.4In 2008, it was noticed that the
program to foster both educationalinnovations for student development of skills for innovation and entrepreneurship, anduniversity-wide engagement likely to lead to institutionalization of the supported innovations. Tothis end, VentureWell collaborated with the Increase the Impact team, a research project teamthat has developed resources to improve propagation of educational innovations, to develop aworkshop for its grantees to support institutionalization.Designing for Institutionalization ApproachThe Designing for Institutionalization (DI) approach was derived from the Designing forSustained Adoption (DSA) approach. DSA was developed by the Increase the Impact team basedon studies of typical practice and successful practice.19 The framework is
and the student working together to physically change the student’s brain.Zull reinforces the physical change idea by referring to the “biology of learning” as a wayof encouraging teachers to study the human brain.Educator Hardiman takes a similar tact in her book Connecting Brain Research withEffective Teaching: The Brain-Targeted Teaching Model23. She urges educators to“become better consumers of the mountains of research that have emerged since the1990s.” For example, she highlights the important role the physical environment plays inteaching and learning.We’ve all heard a struggling engineering student say “I don’t have the brains for this” orsomething similar. Perhaps you, like me, have said it to ourselves or others. Whateveryour or my
above problem in real curriculum practice.2.2 Field work and the focus of this study+++ University’s curricula are based on problem-centered, real-life projects ofeducational and research relevance. With its strong emphasis on active learning andteam-organized learning, problem and project based learning (PBL) incorporates manyfactors providing powerful facilitation in terms of innovation competency [19, 20]. Thispaper conducted the fieldwork in one master engineering programme at +++ University,Environment Management (EM). This Master of Science Programme was selected for thefollowing reasons: innovation competency is one of the key skills that the EMprogramme is intended to cultivate among students; it is a typical engineering programmewith a