Paper ID #33408Virtual Elevator Pitch: Disruption or Opportunity?Mrs. Sandra Furnbach Clavijo PE P.E., Stevens Institute of Technology (School of Engineering and Science) Sandra Clavijo is the Director of Core Education for the Schaefer School of Engineering & Sciences at Stevens Institute of Technology. She coordinates the instructional delivery, student registration and scheduling logistics and collection of assessment data for all core courses in the undergraduate engineering and science programs. Sandra previously worked in the Office of Innovation and Entrepreneurship and managed programs encouraging and
. 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
approach.This engineering technology-driven program has evolved to incorporate students from manyother departments throughout campus (i.e., art, history, international studies, etc.). This hasprovided all students an opportunity to experience an engineering technology program they maynot have had otherwise. The coursework focuses on the Roman architectural concepts,environmental sustainability, construction methods, materials, and applications.The vision for this project is to have a permanent study center abroad or an ETSU at Romecampus. In 2009, the first class had 13 participants. In 2010, we offered three class choices for17 students, and we will have approximately 25 students enrolled for 2011. Our growth isevolving as a result of creative
adapting” (p. 54). Inaddition, the Academy states that, “Creativity…is an indispensable quality for engineering, andgiven the growing scope of the challenges ahead and the complexity and diversity of thetechnologies of the 21st century, creativity will grow in importance.” The Academy questionshow engineering education must evolve to meet the needs and problems of the 21st century butgives few details on how it expects institutions to change current practices to develop engineerswith the list of ideal attributes.In recent years, the development of skills such as innovation and creativity has primarily beenleft to two areas in the typical undergraduate engineering curriculum: 1) institutionalizedprograms such as entrepreneurship minors or
. Thus it is vital that engineering students are prepared for this environment and givenopportunities to develop a fuller set of business-related skills. Exercises in these skills cancomplement a wide range of topics in traditional engineering courses. This paper discusses aproblem-based learning (PBL) module on the topic of sustainability created to develop students’abilities in and sense of the importance of innovative problem solving, collaboration, marketanalysis, and other entrepreneurial skills.As a footnote, it should be understood that the authors are using “entrepreneurship” in a largersense than its traditional definition. It does not here necessarily imply starting a new businessorganization. Rather, it refers to the creativity
the surveys must be administered before and after the intervention. While indirect assessment methods are commonly used and useful, direct assessmentmethods based on student work are stronger. Studies on the direct assessment of EM are muchfewer than those on indirect assessment. Klein and Yoder proposed a rubric-based approach forassessing student artifacts [6]. Hylton and Hays modified VALUE rubrics to perform courselevel assessment of EM [7]. A method to assess student achievement of KSOs involving thecomputation of an Entrepreneurial Minded Learning (EML) Index was proposed byHarichandran et al. [8]. In this paper, an alternative and more traditional approach based on theproportion of students in a class achieving an acceptable score
E. Hanifin (University of Detroit Mercy)AbstractMost of the students engaging in entrepreneurship at engineering schools will not start their ownbusinesses as their first employment. Most will enter industry. The challenge to use theirentrepreneurial interests and skills then resides in their abilities to innovate, engage,communicate and lead in an industrial environment to identify and pursue new opportunities anddirections for these organizations.Building on an extensive study1 conducted with a team comprised of faculty from four leadingcolleges, and encompassing an industrial advisory group composed of leaders from tencompanies spanning large material based corporations to large consumer products goodscompanies to recognized world class
number of non-responses, thus complicating such assessments as correlation among responses to different questions and estimation of reliability ofresponses. The data analysis was applied to multiple population comparisons, including: Comparison of student responses relative to the positive and negative formulation pairs Comparison across class year Comparison by gender Comparison by discipline In terms of reliability of the data, we employed Cronbach’s as a measure of consistency across questions onintelligence and, separately, across questions
Paper ID #33654Entrepreneurial Vision Module: Lessons from the PandemicProf. Claudia Paz Gwynn, Universidad Andres Bello Doctorate student in Psychology with a research line in innovation, Master in Entrepreneurial Develop- ment for Innovation and Master in Coaching. National Coordinator of the Academy of Innovation and Entrepreneurship in the School of Engineering, Universidad Andres Bello, Chile. With training and ex- perience in active methodologies for teaching and training entrepreneurial and innovative skills.Prof. Genaro Zavala, Tecnologico de Monterrey; Universidad Andres Bello Genaro Zavala is a Full Professor and
real software products.Tech Startup Model. The Tech Startup process begins with the onset of the semester, when instructors presenta general overview of semester-long projects and charge students to brainstorm project ideas forsoftware to develop. With the popularity of social media, web services, and prevalence ofsmartphones, most projects proposed involve web and/or mobile applications. In the followinglecture, the project proposals are shared among all students and each student expresses whichproject(s) to which they wish to contribute. Based on their preferences, we form teams of about 5software engineering students with 1-2 entrepreneurship students. Students are expected toarrange times outside of class to meet regularly to work
management systems, are self-paced andtargeted at conceptual learning of 18 specific entrepreneurial topics. Using a flipped-classroominstructional model, students complete the modules outside of class, typically over a set two-week period, and instructors engage the students in discussion either in-class or online andthrough an activity. This mode of integration enables the assessment of higher cognitiveunderstanding of the concepts and students’ ability to apply what they learn.At present, 12 modules have been developed. In addition to the modules being integrated withinthe University, they have also been adopted by faculty at 42 other institutions across the countryover the past three years. The broad-scale deployment has provided assessment and
Education, 2018 Evaluating Innovations from a Critical Thinking ApproachOne strategic initiative at Clemson University is to promote innovation and entrepreneurshipamong faculty and students. One of the channels for introducing students to innovation andentrepreneurship at Clemson University is a course offered through the General Engineeringprogram, ENGR 2200: Evaluating Innovations: Fixtures, Fads, and Flops. This generaleducation course was designed to actively engage students in deep thinking about therelationships between innovation and society. The goals of this class are two-fold: 1) studentsgain an understanding of how societal and technological trends drive innovation, and 2
subsequent years and in various courses.8. Understanding return on investment (ROI). As part of the final presentation, the student are required to quantify the return on investment which require that they understand in basic terms the time value of money.9. Venture creation within and outside of corporations. The students are introduced to the differences in venture creation as a start-up company (entrepreneurship) or as a unit within an existing corporate environment (intrapreneurship). The students are required, as part of the final presentation, to indicate whether they are presenting an entrepreneurial or an intrapreneurial venture.5- Choice of ProjectThe projects chosen for this class are high technology, requiring
Page 13.898.2substance detectors, which incorporate structures holding molecules that change theirelectrical conducting properties in the presence of the substances being detected. Thedevelopment of a new class of nanoscale transistors and molecular electronics has alsobeen made possible by the utilization of nonotechnology. These molecular electronics(transistor), combined with nanoengineered fabrics and structural members possessingamazing strength, have enabled engineers to create computers with incredible processingspeed and enormous memory capacity.In spite of the unlimited potential of nanotechnology in the consumer products domain, thecommercial applications of this technology have been confined to utilization of colloidalnanoparticles
, divergent types of students could leverage unique domain knowledge to create uniqueand potentially commercially viable solutions to real problems. To make it easier for non-business students to fit an entrepreneurship class (e.g., EIL) into their schedules, the BusinessDepartment chair allowed Engineering and CS students to use the EIL to satisfy a GeneralEducation requirement. The instructor of the EIL course began making recruiting presentationsto Engineering classes and distributing recruitment flyers to Engineering faculty. Faculty alsosought and received assurances from the University that students would retain rights to anyintellectual property produced in class. This pivot to expand the reach of the emergingentrepreneurship curriculum and to
mindset in “digital systems” class through a jigsaw-puzzle model. In each labassignment, they provide students with some components or puzzle pieces as well as the userguide of a digital system. The main EML objective include to “stimulate students’ curiosity,instill a feeling of value creation in students, and encourage teamwork, collaboration, andconnection.” Hoffman [16] introduced how they applied an entrepreneurial approach to a seniordesign course. In order to simulate the workplace, the entire design class functions as a startupcompany addressing an instructor generated problem for development of a new product. TheUniversity of Florida College of Engineering offers an entrepreneurship course which mimics thereal-world experiences of
food truck simulation: (i) Introduction toEntrepreneurship, (ii) Technical Entrepreneurship, and (iii) Introduction to EngineeringManagement. The class year for each of the three cohorts is shown in Table 4.Table 4: Class year for students across three courses participating in the research study Course Freshmen Sophomore Junior Senior Graduate Intro. to Entrepreneurship 68 0 0 0 0 Technical Entrepreneurship 0 0 1 12 3 Intro. Engineering Management 0 0 9 49 1 Totals: 68 0 10 61
Paper ID #6710Analysis of Personal Attributes and Skills of Mercer Undergraduate Engi-neering StudentsDr. R. Radharamanan, Mercer University Dr. R. Radharamanan is currently working as Professor of Industrial Engineering and Director of Mercer Center for Innovation and Entrepreneurship (MCIE) at Mercer University in Macon, Georgia. He has thirty nine years of teaching, research, and consulting experiences. His previous administrative experi- ences include: President of International Society for Productivity Enhancement (ISPE), Acting Director of Industrial Engineering as well as Director of Advanced Manufacturing Center
particularly attractive framework in which tointroduce these ideas for two reasons. First, many students have a keen interest in Page 12.1518.4entrepreneurship, which translates into active class participation. Secondly,entrepreneurship is challenging and multifaceted. It gives students candid insights intohow businesses actually operate and why they operate in those ways—particularly whenthere is industry involvement in the program. This is where ASU’s partnership withMicrochip is particularly important. Engineering entrepreneurship is a balanced combination of engineering, businessknowledge, and soft skills training, but one that some
, conducted acomparative analysis of ethics courses taught at several US business schools in which the casemethod was utilized. Colby and Sullivan (2008) reported that that in almost all schools theystudied, the primary goal of the ethics course was to teach the professional codes of ethics, whichinclude: public safety, health and welfare, and protection of environment; loyalty to bothemployer and customers; fairness; intellectual properties of others; conflicts of interest; anddiscrimination and unfair competition. Chan et al. (2012) describe entrepreneurship,professionalism, and leadership as three key aspects of today’s engineering careers which areincreasingly becoming “boundaryless”.Leadership education has also garnered immense attraction
: Effects calculation and risk analysis” published by CRC Press) and more than 20 papers in international peer-reviewed journals.Ms. Raelene Dufresne, Texas A&M University - Qatar Ms. Dufresne is an educator with 20 years experience in both secondary and tertiary educational insti- tutions in North America and abroad, teaching students from all over the world. A proponent of using technology in the classroom, she currently flips her classes using videos and interactive learning activities to improve student understanding, as well as to level the playing field for her freshmen mathematics- for-engineers classes at an overseas branch campus of Texas A&M University. Notably, her secondary students at the American
rewarding students’ entrepreneurialefforts. Engineering entrepreneurship is growing as a subfield of interest as well, with manyinstitutions nationwide placing centers for entrepreneurship and innovation under theirengineering schools and with the establishment of The Journal of Engineering Entrepreneurship.A study was started at a western research university to better understand the impact of peerconsultants in entrepreneurship for engineering students (Call, Goodridge, & Scheaffer, 2016).These peer consultants from the university’s entrepreneurship center were invited into randomlyselected sections of a Technical Communication for Engineers class to present information aboutentrepreneurship, the on-campus resources and competitions that
Paper ID #16437Instilling an Entrepreneurial Mindset through IDEAS Studio CoursesProf. Charles Kim, Bucknell University Charles Kim is an associate professor of mechanical engineering at Bucknell University. He received Ph.D. and M.S.E. degrees from the University of Michigan and B.S. from Caltech. Prof. Kim teaches courses in design and innovation and is currently director of the Innovation, Design, Entrepreneurship, Applications, and Systems program at Bucknell.Dr. R. Alan Cheville, Bucknell University Alan Cheville studied optoelectronics and ultrafast optics at Rice University, followed by 14 years as a faculty
-prepared and unable to develop the models needed. Thefaculty facilitation required was much greater than that required for completing the computationalsolutions to the models they were developing. Only a small number of students demonstrated strongability to succeed in the modeling process on their own. Interestingly, these weren’t necessarily studentswith high GPA. In fact, in the first semester that more open-ended projects were introduced, the beststudent in the class was a young man with just a 2.6 GPA, well below the average in his class.A common characteristic describing the most successful students began to emerge. They were all studentswho would describe themselves as creative. These students seemed to have a strong excitement for
Paper ID #15272Promoting the Entrepreneurial Mindset through Faculty DevelopmentDr. William M. Jordan, Baylor University William Jordan is the mechanical engineering department chair at Baylor University. He has B.S. and M.S. degrees in metallurgical engineering from the Colorado School of Mines, an M.A. degree in theology from Denver Seminary, and a Ph.D. in mechanics and materials from Texas A & M University. He teaches materials-related courses and does work in the area of mechanical behavior of composite materials. He is also interested in entrepreneurship and appropriate technology in developing countries.Ms
literature.Definitions for elements of the discipline are also evolving; for example, Bement and Duttahighlight their finding that differences between innovation and entrepreneurship may not begenerally understood. (Bement and Dutta, 2014.)An innovation education continuum has been described as “ranging from the topic of creativityon one end, through (product & process) innovation, (entrepreneurial) new venture developmentOR (intrapreneurial) value creation in established organizations, to enterprise management on theother”, (Duval-Couetil & Dyrenfurth, 2012; Figure 3, cited in Duval-Couetil, Shartrand andReed, 2016). While creativity and innovation may be considered “innovation process” and thefinal elements “innovation outcomes”, all relate to
, Kitts serves as the Mission Operations Director for a series of NASA spacecraft, as an affiliate researcher at the Monterey Bay Aquarium Research Institute, and as a KEEN Fellow for Santa Clara’s program in undergraduate innovation and entrepreneurship education. Kitts’ previous experience includes service as a satellite constellation mission controller in the U.S. Air Force, as a technical con- tractor for NASA Ames Research Center, and as a DoD Research Fellow at the U.S. Philips Laboratory. He holds degrees from Princeton University, the University of Colorado, and Stanford University. He is a Fellow of the American Society of Mechanical Engineers.Ms. Anne Mahacek, Santa Clara University Anne Mahacek received her
contribute to group design. The debrief of the exercise also discusses the need forawareness that fear of failure and risk tolerance vary amongst groups and countries and theimpact this has on entrepreneurship. The scale represents from 1 (most tolerant) to 6 (mostfearful) the assessment of an individuals fear of failure. Discussion of outliers and thedistribution leads to the understanding that we don’t all fear failure the same and this is importantfor entrepreneurship and engineering. If we are afraid of doing (action) then the hesitancy canstifle opportunity and innovation.Who’s on First?This is a team exercise that takes place in class and follows the “Who’s on First?” by ElaineEisenman [3]. Each team of ~5 students is given the same challenge
that where the value isbeing created has implications in determining design requirements. This module was alsoinitially delivered in Engineering Seminar in fall 2018 as a small part of a class session, but isbeing expanded in the current spring 2019 Engineering Seminar to span several class periods andinclude evidence-based entrepreneurship practices. So far, faculty in entrepreneurship wereinvited to give a guest lecture on opportunity recognition and customer discovery, including ashort intro to the business model canvas [4] and the concept of product/market fit. Futuresessions will further emphasize customer discovery and exploring product/market fit as criticalsteps that inform the first phases of the engineering design process.The three
curricular and co-curricular programs at the Engineering Innovation Center which promote innovation and entrepreneurship among engineering students and in collaborations with other colleges on campus and partnering with other institutions across the country.Dr. Jeffrey E. Froyd, Texas A&M University Dr. Jeffrey E. Froyd is a TEES Research Professor in the Office of Engineering Academic and Student Affairs at Texas A&M University, College Station. He received the B.S. degree in mathematics from Rose-Hulman Institute of Technology and the M.S. and Ph.D. degrees in electrical engineering from the University of Minnesota, Minneapolis. He was an Assistant Professor, Associate Professor, and Professor of Electrical and