types of minds and every person needs to be literate in engineering and technology. She is an ASEE and IEEE Fellow and PAESMEM awardee. c American Society for Engineering Education, 2018 Enhancing Diversity through Explicitly Designed Engineering OutreachThe Engineering Place at NC State University was founded in 1999 and grew as an extension ofthe Women in Engineering Program with the desire to attract more women to engineering byreaching out to younger students. It was soon evident that any efforts to attract women toengineering would also be beneficial for underrepresented populations and all students. Workingin the preK-12 space also highlighted the need to inform the public about the true nature
would be designedwith the following goals in mind: 1. to introduce young women to the field of engineering and to thus encourage them to continue their pursuit of advanced math and science courses 2. to provide female role models to the program participants by including panels of both female engineering students and female professional engineers as discussants. Page 13.500.2 3. to provide high school teachers and counselors with additional information about the admissions process, financial aid, and cooperative education opportunities at the University of Louisville, particularly in engineering. 4. to encourage
AC 2009-728: CULTURAL INTELLIGENCE: ENGINEERING SUCCESS FOR AFLAT WORLDRichard Gash, United States Military AcademyStephen Ressler, United States Military AcademyEric Crispino, United States Military Academy Page 14.390.1© American Society for Engineering Education, 2009 Cultural Intelligence: Engineering Success for a Flat WorldAbstract The civil engineers we educate today will enter a truly global work force. Globalization,resultant from a proliferation of information technology, has increased the likely hood that civilengineers will find themselves working in cross-cultural situations. Success in suchenvironments will require, in addition to classical
in each field and the academic subjects the field encompasses.Using these field descriptions, students will be able to determine the field within which theirinterest falls and navigate to the appropriate field page using links on the interests page.It is worth mentioning that although the interests/fields page will be similar to the MEOP(they both describe mechanical engineering), they will not be identical. MEOP is directedmore toward users who have very little knowledge of mechanical engineering, whereas theinterests/fields page is directed more toward users who already know enough about mechan-ical engineering to have a goal in mind. MEOP will be more focused on grabbing attentionwith the particularly interesting parts of mechanical
in the final section.Developing the Workshop, “Get Noted”In our effort to enrich the engineering experience, we chose the electric piano to attract andengage the girls scout. Several factors influenced this decision: most people enjoy music. Thecomponents to build the piano were easily accessible and readily available and inexpensive. Thepiano was simple to build.The Extraordinary Women Engineers 2005 report states that girls believe engineering is forpeople who enjoy both math and science and that engineering is difficult and challenging [5].The report also shows that the first words that come to girl’s minds when thinking of engineeringincluded men, boys, cars, engines, which are too difficult and boring. We hope that this projectwould
Session 3263 Ã Teaching Manufacturing Using The Golden Key – Reverse Engineering Harry L. Hess The College of New JerseyI. IntroductionThe United States will be able to continue its unprecedented economic growth and maintain itslead as one of the greatest manufacturing countries only if it finds ways to stimulate the minds ofits young engineers - manufacturing’s future. The engineering program is the vehicle to teachthe students how to convert their brightest ideas into manufacturing
programs to extrapolate the role that importantengineering science principles like the diffusion concept play in the various aspects of its diversecourses. In fact, this fundamental concept is introduced in most freshman chemistry experiencesand, therefore, is available as a topic for discussion and development in any civil engineeringcourse. Topic areas where diffusion’s role can be expanded or further explored includeconstruction materials, corrosion phenomena, and the fate of chemicals in the environment. Thegoal, however, is not just to extend the role that such phenomena plays in a given course or evena curriculum, but to use it as a topical tool to broaden engineering student’s minds to encompassthe role global phenomena like diffusion play
standardized tests, some lacked the ability to promptly recall importantmathematical principles or practical solving techniques that are often needed inengineering design or upper level engineering courses. These students needed a coursethat reminded them of what is important to engineers, how to rely on specific solutiontechniques, appreciate the math course sequence required from them, and identify therelationships between these mathematical techniques and engineering. In short, theylacked concept drilling, and were unable to build (in their mind) a bridge between whatthey were learning in a required math sequence and their future engineering discipline.So, the attention of the engineering division at Lafayette turned to this introductorycourse to
-Form_DrexelGK12.docxPage 4 of 8 WORKSHOP PROPOSAL FORM 2015 Annual ASEE K-12 Workshop on Engineering Education “Authentic Engineering: Representing & Emphasizing the E in STEM” Presented by Dassault Systems Saturday, June 13, 2015 8:00 A.M. – 5:00 P.M. Sheraton Seattle | Seattle | WAAuthentic Engineering Connection. Identify and describe how you will explicitly address theways in which your lesson or activity is representative of the processes, habits of mind andpractices used by engineers, or is demonstrative of work in specific engineering fields.i At leastone of those
could implement in our context, eitherdue to lack of specificity in the paper, or because the passport was used for another purpose(such as an engineering outreach program). Therefore, we decided to develop our own. Thisprocess began by reviewing the course outcomes (listed above) and identifying activities whichcould support students’ achievement of them. We sought to be particularly mindful of theworkload, as our orientation class has zero credit hours. Some, such as outcomes 2 and 4, werecovered in other assignments. However, outcomes 1 and 3 were sparsely addressed and assessedin the orientation curriculum, and thus became the primary goal of the passport. The activitiesdetailed in Table 1 were identified to meet course outcomes 1 and 3
, conflict mediator and restorative justice facilitator and trainer. Annie is committed to transformative education that engages the whole person. She is inspired to cultivate the emotional intelligence and leadership effectiveness of students, staff and professionals. She is a certified Search Inside Yourself teacher; a mindfulness-based emotional intelligence program for leaders.Dr. Doug Reeve P.Eng., University of Toronto Dr. Reeve was the founding Director (Emeritus) of the Troost Institute for Leadership Education in Engi- neering (ILead) (2010-2018) at the University of Toronto. After a lengthy career as a consulting engineer he made development of personal capability central to his work with engineering students
discussion of summarized responses aregiven below. 1. What engineering discipline were you interested in before participating in this project and why? Six (6) of the students listed more than one discipline, 3 of them weren’t sure, and 4 of them listed a single discipline. 2. What engineering discipline are you interested in now and why? Eight (9) students decided on one discipline, 3 students listed two disciplines, and one student was still unsure. 3. Why did you or didn’t you change your mind? Some students stated that they only made up their minds, some changed their mind because of more money or more interested in the career opportunities, while some made
, China in 2015.Participating students at our institution are required to develop a research project around one of theGrand Challenges. They may take courses designed with the Grand Challenges in mind, or develop aproject that applies subject knowledge. They must seek out opportunities to develop global perspectives,and participate in service learning projects. Our Engineering College web site sets out the programgoals: Research or Major ProjectAll GC Scholars will be required to initiate, complete and make a presentation on a research projectrelated to one or more Grand Challenges. Interdisciplinary CurriculumGC Scholars will be required to complete a curriculum that provides knowledge related to solving one ormore of the Grand Challenges. GCSP
stated: I thought that the science of structures would bereally hard to understand for someone with an english[sic]/history mind like me but it turns outthat civil engineering is not too intimidating [survey response]. Furthermore, when responding toquestions specifically about STEM abilities (content knowledge, skills, and habits of mind),students acknowledged an increase in content knowledge. For example, a student stated: Myunderstanding of the subject has increased especially in terms of evaluated civil engineeringstructures and understanding the basic science behind how they work [survey; 4/29/2015].Another student noted: I definitely now understand how engineering is really a way of problem-solving in interesting, creative ways [survey
students, especially those typically underrepresented inSTEM, to take the high school courses needed in preparation for 21st century workforce needs.Each EYE Module is designed such that students use engineering practices and apply requiredmathematics and science content to develop solutions to relevant problems facing humans today,fostering the development of engineering “habits of mind.”The set of eight EYE Modules are comprehensive and extensive instructional guides for middlegrades teachers to implement collaboratively in mathematics and science classes. The Modulesaddress standards-based STEM content and practices that fill gaps between state-mandated andtested content and what business and industry say they need, including innovative
innovative mind in order to be inserted in and to keep up withthe work market. Knowledge in Basic Sciences, Basic Sciences of Engineering and Specifics ofEngineering are fundamental for the training of an engineer. However, the insertion in labormarket sometimes demands some practice or experience that should also be provided by theengineering schools. Taking this into account, the Engineering Education Research Team ofCOPEC – Science and Education Research Council has designed and is implementing a programfor an engineering school which main goal is to prepare engineers for the future work market, theengineer for the future. The idea was born due to the very competitive environment thatEngineering Schools are facing recently and the fact that fewer
-ready Software Engineers” Software Engineering: Effective Teaching and Learning Approaches, Ellis, H., Demurjian, S., and Naveda, J.F., (eds.), Idea Group Publishing. October 2008.7. Novak, J.D. and Cañas, A.J., "The Theory Underlying Concept Maps and How to Construct and Use Them" Technical Report IHMC CmapTools 2006-01, Florida Institute for Human and Machine Cognition, 2006.8. Eppler, M.J., “A Comparison between Concept Maps, Mind Maps, Conceptual Diagrams, and Visual Metaphors as Complementary Tools for Knowledge Construction and Sharing “ Information Visualization 5(3):202-210, 2006.9. Cañas, A.J. and Novak, J.D. (eds.), “Assessing concept maps: First impressions count”. Proceedings of the Second
mind, Sharlene conducts teacher professional development that not only teaches content, but models strong science pedagogy so that elementary school teachers can experience for themselves the power of inquiry-based and open- ended learning. Sharlene received her B.A. in Biology and Psychology from Cornell University, her M.S. in Biopsychology from the University of Michigan, and her M.A.T. in Science Education from Tufts University.Christine M Cunningham, Museum of Science Page 22.667.1 c American Society for Engineering Education, 2011 Exchange—Engineering is
origin of word ‘engineer’ has nothing to do with locomotives, engines or motors ascommonly perceived in English speaking world. It traces its roots to French ‘ingénieur’ whichwas derived from ‘ingénier’ (to exert somebody’s mind), ‘ingéniosité’ (ingeniousness) and‘ingénieux’ (ingenious). The origins of ‘ingénieux’ point mainly at ‘ingenious’ rather than just‘thought over’ but do not point at ‘inventive’ (inventif). So, is engineering about inventing?Ideally yes. Famous phrase by Theodore von Karman “Scientists describe world that is, engineerscreate world that never was”. Engineering is about creativity, and ideally about inventing too.But do we even know how a human mind comes up with an invention? A successful engineer hasnot only traits of a
Ramesh K . AgarwalMechanical Engineering & Materials Science Washington University in St. Louis ASEE Mid-Atlantic Fall Conference 2011 Temple University, PA, 29 October 2011 Introducing Sustainability d in Engineering Education Sustainable Product Design in all Disciplines of Engineering (Keynote) Bio of the Presenter 10Sustainability • “The effort to frame social and economic policy so as to preserve earth’s bounty – its resources, inhabitants, and environments – for the benefit of both present and future generations. The old Native American proverb ---- We do not inherit the earth from our ancestors, we borrow it from our children
the same exact thing I just did, I'll call them out for it and I'll say, "I literally just said that. You're just ignoring me.“ (Sandra) 13Sexist comments & attitudes limit women ability to createreliable networks of support in engineering for their MH.So that's one of the things that I can't really talk to my engineering friends aboutbecause they have expressed that I'll automatically get a job because I'm awoman. I do think it does give me an advantage, not because I'm just a woman, butbecause diverse minds bring diverse ideas to solutions. And that's something thatcompanies want, they want people with different mindsets. And I have that because Iam a woman in a
., Kisenwether, E., Rzasa, S., and Wise, J., “Developing and Assessing Students’ Entrepreneurial Skillsand Mind-set,” Journal of Engineering Education, April 2005.10. Martin, R.L., and Osberg, S., “Social Entrepreneurship: The Case for Definition,” Stanford Social InnovationReview, 2007, 30-39.11. Jansson, D.G., Condoor, S.S., and Brock, H.R., “Cognition in Design: Viewing the Hidden Side of the DesignProcess”, Environment & Planning – B, Planning & Design, Vol. 19, 1993, 257-271.12. Kroll, E, Condoor, S.S., and Jansson, D.G., Innovative Conceptual Design, Cambridge University Press, 2001.13. Watkins, T., Ochs, J., Snyder, D. "Leveraging What Freshman Don't Know: Product Development in anIntegrated Business and Engineering Freshman Workshop
in global engineering education (GEE). By GEE, we meaneducating engineers with a global mindset to improve their Global Competency. This can bedone in many ways and many conference papers explain how a given university has createdprograms to help engineers be exposed to global technology, culture, communication andcollaboration. Typical programs offer study abroad for engineering students, but some also offermulti-national teaming on projects with common objectives.Conferences and symposia have their place, but sometimes the participants need extended timefor goal-directed discussion. With this purpose in mind, faculty who were known to be involvedin GEE programs gathered for a workshop held at Arizona State University, Tempe, Arizona
aspects of the course. The questions that apply here are listedbelow with results from the 24 respondents summarized:“Why have you decided to major in or have an interest in Industrial Engineering?” • 9 indicate that it is the way their mind works, this is how they think, or how they are. • 4 use the word efficiency, as in to study or improve efficiency • 4 like the breadth, the systems approach, seeing and improving the big picture • 2 mention IE’s ties to the business side of engineering • 5 indicated that they had heard about IE at an event designed to expose freshmen to the different majors, or by talking with someone“How do you prefer to be taught (lecture, hands on activity, both, etc.) Please describe and/orgive an example
HUMAN COMPUTER INTERACTION CLOSES THE SOFTWARE ENGINEERING GAP John D. Fernandez, Ph.D. Texas A&M University – Corpus ChristiAbstractWith the pervasiveness of computers throughout our environment, there is a growing demand fordiligent Human Computer Interaction (HCI) education of graduate and undergraduate students toclose the gap left by software engineering education. This paper describes one approach toteaching HCI while requiring students to develop systems for various city, school, and universityorganizations. The benefits derived by the students and the clients receiving their services aremany. There is a wide range of opportunities for
BEYOND EQUATIONS: TEACHING ORGANIZATION THEORY TO PRACTICING ENGINEERS Zbigniew J. Pasek University of MichiganINTRODUCTION AND MOTIVATIONIt has been long recognized that skills needed by the engineers in the technical workplacecomprise not only of the technical competence and familiarity with various types of technology,but also have to encompass communication, teamwork, ethics, and many other issues.Interestingly, many of these skills are activated only in the work-setting and universities ingeneral some of these skills are hard to acquire during an academic training. The alumni surveycarried out annually by the College of
students arequizzed on the topics of the day’s lesson.This technique has been successfully adapted to cooperative learning activities in the distanceeducation environment via computer-supported groups16, and using handhelds17. Specificallypertinent to this report, engineering educators have found Jigsaw activities to be positive andeffective in online learning.Soh’s et al “research has designed and developed an infrastructure called the IntelligentMultiagent Infrastructure for Distributed Systems in Education (I-MINDS)”18 [p. 1556]. Page 25.128.6Intelligent agents actively support two types of interactions: student-student and teacher
Session 2392 TEACHING GENDER ISSUES TO UNDERGRADUATE ENGINEERING STUDENTS Ingrid H. Soudek Division of Technology, Culture, and Communication School of Engineering and Applied Science University of VirginiaAs more women are graduating from Engineering Schools and entering work environments thatare traditionally male, it is important to educate students, male and female, on gender issues. TheSchool of Engineering and Applied Science at the University of Virginia has a Division ofTechnology, Culture, and Communication
. foster studentsense of belonging in the pre-major; and 4. promote and encourage student engagement andinclusion.Course Description: ENGR 101 (2 credits) introduces students to field of engineering and designand explores the relationship between engineering, design, technology, and society. The courseprovides a structure for students to explore and understand the role of social justice inengineering and design while developing foundational skills necessary for student success.Topics include societal impact of technology, the relevance of social justice in the engineeringand design profession, ethical decision making, and social mindfulness in design.Course Learning Outcomes: • Demonstrate knowledge of the engineering and design professions and
you mind if we ask your mother’s mother about this recipe?” “Of course not” was the reply of the first chef, however he probably wasn’t ready for the answer that his grandmother gave. Her reply was “Goodness no, that’s not how one cooks roast beef, how wasteful! You see, when your mother was growing up the only cooking pot that I owned was somewhat small, so whenever I had a large cut of meat like a roast beef I would cut off the ends so that it could fit in the pan.” As engineers we know that after a process is designed and implemented the initial internal and external design assumptions, constraints and opportunities change over time. What fit and worked well in one timeframe may not hold over time. With this