Paper ID #7753Enhancing K-12 Education with Engineering OutreachDr. Cheryl D. Seals, Auburn University Dr. Cheryl Seals is an associate professor in Auburn University’s Department of Computer Science and Software Engineering. She graduated with a B.S. C.S. from Grambling State University, M.S. C.S. from North Carolina A&T State University and a Ph.D. C.S. from Virginia Tech. Seals conducts research in Human Computer Interaction with an emphasis in visual programming of educational simulations, user interface design and evaluation, and educational gaming technologies. Dr. Seals also works with computing outreach
or delivery, and identification ofnew market share. The culmination of the course is to present the groups’ business ideas toinvestors and judges (in a business pitch competition), and use feedback and knowledge gainedfrom these presentations to make a final report including an analysis of the businesses’ potentialfor success.The guiding principle in designing this course was that modeling the process of ideation, Page 24.624.7research, development and commercialization in a course environment would foster anentrepreneurial spirit in engineering undergraduates; making them less risk-averse and morecreative and open-minded in their approach to
the US. International students have beena means for responding to the need for diversifying the enrollment in many US universities: ifimmigration is limited, the numbers start to read uncomfortably low. Finally, with technically-minded international students now having good universities and improved work opportunities athome, they can take their US education and return home, leaving behind a US engineeringworkforce which will gray more rapidly with their departure, or else never leave home for theireducation, leaving US universities without their talents.It is in the interests of the engineering educators, as public leaders to participate actively in asustained and informed discussion of the composition and characteristics of the technical
AC 2010-2146: TEACHING ENGINEERING REASONING USING A BEAMDEFLECTION LABNatasha Smith, University of Southern Indiana Page 15.1173.1© American Society for Engineering Education, 2010 Teaching Engineering Reasoning using a Beam Deflection LabAbstractWell crafted laboratories reinforce theoretical concepts presented in class, but also sharpenstudents’ technical reasoning skills and provide practice in technical communication. This paperpresents an introductory mechanics laboratory on beam deflection, suitable for freshmenengineering courses or as an opening week experiment for Strengths of Materials. The labconsists of 4 distinct experiments, each requiring students to
with professional development and technical assistance to help them align withthe Standards, and the students with access to appropriate science, mathematics and technology educationThe approach is systematically organized into complementary pathways.• “Minding” the Technological Pipeline - Enrichment studies in science, mathematics and technology not normally available to students in elementary and secondary schools, encouraging students to pursue careers in STEM fields as a meaningful and realistic goal;• Impact the Classrooms of New Jersey: Aligning Practice with Standards within the Inclusion of Real World Engineering & Technology in Classroom Instruction - Professional development programs for practicing teachers and
. KEEN operationalizes EM into the “3C’s”, which represent a set of desiredEntrepreneurially Minded Learning (EML) outcomes that include Curiosity, Connections, andCreating Value [13]. The Ohio State University (OSU) began its partnership with KEEN in 2017and has since integrated the 3C’s into many courses across the College of Engineering. Theseinitiatives began with the restructuring of the design-build course in the First-Year EngineeringProgram (FYEP) standard sequence [15] and have expanded to the FYEP honors sequence,Capstone courses, and intermediate engineering courses. Efforts to assess students’ EM haveparalleled these integrations, including the development of 14 Entrepreneurial Mindset LearningObjectives (EMLOs) [16] and a “toolkit
Paper ID #38330Developing optical devices and projects for teachingengineeringNathan Lemke (Associate Professor) Nathan Lemke is Associate Professor of Physics and Engineering at Bethel University (St. Paul MN). He holds a Ph.D. in Physics from the University of Colorado. His research interests include atomic clocks, optical time transfer, atomic vapor cells, and laser stabilization technologies. Recently he has become interested in improving STEM education with student- led projects.John McCauleyTristan E NobleGrace RiermannEllesa St. GeorgeNathan Lindquist (Professor of Physics and Engineering)Keith Robert Stein
-level courses. LCA is amindset and tool via which students can add a quantitative aspect (e.g., carbon footprint) to theirdesign choices [2], including seemingly qualitative decisions. Furthermore, students might not beaware of the applications, tools, or contexts surrounding environmentally-minded design [3]. Toaddress the need for more sustainability in engineering education, we developed a new LCAmodule for our first-year engineering program at Ohio Northern University. We want ourstudents to develop a big-picture understanding about everything that happens during the designprocess. Through our module, students are encouraged to think holistically about engineering.LCA module development and classroom dissemination Within Ohio
Paper ID #19522Lean Manufacturing Principles Applied to the Engineering ClassroomDr. Eric D. Smith, University of Texas, El Paso Eric D. Smith is currently an Associate Professor at the University of Texas at El Paso (UTEP), a Minor- ity Serving Institution (MSI) and a Hispanic Serving Institution (HSI), He works within the Industrial, Manufacturing and Systems Engineering (IMSE) Department, in particular with the Master of Science in Systems Engineering Program. He earned a B.S. in Physics in 1994, an M.S. in Systems Engineering in 2003, and his Ph.D. in Systems and Industrial Engineering in 2006 from the University of
Lottero-Perdue (Precollege Division)• Bruce Wellman (Precollege Division, P12 teacher)-due to rotate off or be Renominated by division for one more 3 year term in June, 2016• Darryll Pines, (EDC representative)• Elizabeth Holloway (WIED)• Kathy Harper (First Year Programs)• Rick McMaster ((ret), CMC)-due to rotate off or be Renominated by CDC for one more 3 year term in June, 2016• MIND-this position is currently open due to Karl Reid's resignation; will be filled by June 2016 ASEE P12 Strategic Planning Change in Mission and Vision• Change the ASEE mission and vision to include the following italicized statements including P12 engineering education: – Mission: “The American Society for Engineering Education is
) Women’s ways of knowing: The development ofself, voice and mind. New York: Basic Books.8. Fassinger, R. (2001) “Women in non-traditional occupational fields,” In J. Worell (Ed.), Encyclopedia of Gender,(Vol. 2) (pp.1169-1180). San Diego: Academic Press.LINDA C. SCHMIDT, Ph.D., Associate Professor, Mechanical Engineering, Clark School of Engineering,University of Maryland. Dr. Schmidt is the PI of the RISE project. In addition to facilitating the success of womenand minorities in engineering, she is interested in team training for engineering students and faculty, engineeringdesign processes, and advises the local chapter of Phi Tau Sigma.JANET A. SCHMIDT, Ph.D. Dr. Schmidt is the Director of Student Research and co-PI of the NSF sponsoredRISE
c American Society for Engineering Education, 2014 Exploring Entrepreneurial Characteristics and Experiences of Engineering AlumniAbstractIn recent years one of the goals of the National Science Foundation (NSF) has been to encouragenew generations of engineering students to become more entrepreneurially-minded and self-employed in the engineering field. Engineering schools in the United States have specificcurricular requirements that students must fulfill in order to graduate, and some of theserequirements may incorporate a component of entrepreneurship education. As part of theresearch reported here, data from a survey of recent engineering alumni were used to examineand determine which engineering
Copyright © 2003, American Society for Engineering EducationWhatever the reasons for such a behavior, it can be changed. Depending how resistant a student isto a change in his or her approach, it may take even a full semester to change the approach. Onestudent comes to mind who, when given a problem to solve in a MET 230 Fluid Power laboratoryassignment, would demand providing him with the answer, and refused to work. He would arguethat it was the instructor's duty to tell him the answer. He expected the teacher to teach him, anddid not appear to see that he himself could be his own teacher. The instructor gave up at first andgave the student the answer, mainly to avoid the disruption of other students' work. This studentoffered an excellent
Figure 5. A plot of the output voltage as a function of R0.Average and rms value of a periodic signalThe root mean square (rms) value is a relatively easy concept that is sometimes perceived asdifficult by a student newly introduced to an introductory electrical engineering course. In fact,some students might have a vague idea of the difference between the average value and the rmsvalue of a signal. In addition, professors in higher-level courses take it for granted that a studentknows what an effective current/voltage or rms current/voltage means; therefore, professors inintroductory courses need to make sure that their students fully understand the concept. Oneeffective way of embedding that concept in the students’ minds is by providing an
Session 2613 Revitalizing Statistics in the Chemical Engineering Curriculum David E. Clough Department of Chemical Engineering University of ColoradoFor many years, the Department of Chemical Engineering at the University of Colorado hasstruggled with the dilemma of how to provide our undergraduate students with appropriateknowledge and skills in applied statistics. We have attempted, with varying degrees of failure,⇒ traditional “introduction to probability and statistics” courses at the sophomore
mathematicalintricasies. This method also helps the students to get exposed and exploit the state of the artsoftware available for engineering practices.The course was designed around real world problems. In order to understand the subject as anengineer, theory and problem solving strategies were covered in the lecture period. Theobjective was to teach the students, how to approach problems and critically judge the results.Simulation and multimedia tools were used to animate the problems and provide a real worldeffect to them. Visualization was afforded through models, pictures, graphs and simulation. Theuse of these tools helped to supplement the class lecture. Homework assignments were computerbased and it was given keeping in mind the use of software tools
required formal education must be the research training of undergraduate civil andconstruction students to encourage them to pursue advanced education and research careers.With this in mind, the author developed a funded Research Experiences for Undergraduates(REU) summer training program for undergraduate civil and construction students that focuses onconstruction engineering and management issues and problems. This paper describes the structureof the REU program and the types of activities undertaken by the REU participants. Page 7.1223.1 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition
, knowledge, and truth flow from a supremely intelligent divine mind. And because God made human beings in his image with rational faculties and sensory organs that generally function properly, humans are able to discover the world‟s basic intelligible and empirical order. The omniscient and wise Creator (working like a transcendent cosmic computer engineer) networked the intelligibility of the world with the minds of human beings. In addition, while the great Proceedings of the 2008 Midwest Section Conference of the American Society for Engineering Education 5 revealed truths of historic Christianity cannot
clients. [Student 2] When I think of the word ‘civil’, I think of ‘for the people’ and associate civil engineers with being public servants …. I think that makes it all the more infuriating when we talked about instances like the Tampa Interstate System or the Isle de Jean Charles where civilians are unable to improve their living situation or had it degraded because civil engineers dropped the ball. The profession is far more important than just sitting in an office doing calculations or drawing plans, because if used correctly, your impact on society can be incredibly positive. [Student 3] …engineers need to be trustworthy. They must always have ethics and sustainability in mind. Ethics is being able to look outside of
figure ofVictor Frankenstein in two different non-technical undergraduate courses in STS. In whatfollows, I begin with a brief overview of the two courses and how they engage with Shelley’snovel. Then, I summarize several themes drawn from the novel’s depiction of VictorFrankenstein that warn against unethical techno-science and that offer a negative model of apossible professional self. With Victor’s cautionary example in mind, students can constructcontrasting possible selves oriented toward values of socially responsible engineering practice.Teaching FrankensteinDiscussions of Mary Shelley’s Frankenstein feature prominently in two courses I teach at theUniversity of Virginia, both of which are non-technical engineering courses in STS. The
Page 26.961.10learners and agents in mind as we consider pre-college engineering education. We can learn fromboth the processes that homeschool families have used to access the resources, as well as theresources themselves. This will help us to elucidate the many different options that are availablefor today’s families in supporting the development of their children’s engineering knowledge andskills in out-of-school settings.The preliminary findings from this study raise interesting questions for future exploration. In thecurrent study, we did not explicitly ask the parents about their goals for what their childrenwould learn about engineering. We also did not ask them to provide specific details about thewebsites, museums, and other informal
sound-boards and backs are usually 2.5 mm, although they are more heavily braced than violins. Inaddition, scientifically minded makers and scientific researchers have found that E, along andacross the grain of the wood, the shear moduli, the density, and the velocity of sound in the woodto be the main factors that influence the tonal properties of the assembled violin 23,24,26,28. In fact,some makers measure the density, and then the velocity of sound in the wood (with a Lucchi®Meter), before purchasing tone wood. Since the velocity of sound is proportional to the squareroot of E divided by the density, this is indeed consistent with materials engineering (seeequation 1). The goal for good tone wood is to have as high of ratio as possible of
students and teachers through the fields of chemistry, human ecology, gifted education, and central administration. She has facilitated programming in Science Olympiad, USFIRST, Engineering & Science Summer Institute (ESSI), Odyssey of the Mind, and STEM activities with local school districts. Dr. Roberts enjoys working with K-12 teachers and providing information relevant to career exploration.Prof. Tom C. Roberts P.E., FASEE, FNSPE, Kansas State University Roberts has more than 35 years experience in planning, organizational development, and leadership train- ing programs. He worked for Black & Veatch for sixteen years, formed Upward Consulting in 1989 and has served as a learning organization and process
AC 2011-1295: INVESTIGATING AN INNOVATIVE APPROACH FOR DE-VELOPING SYSTEMS ENGINEERING CURRICULUM: THE SYSTEMSENGINEERING EXPERIENCE ACCELERATORAlice F Squires, Stevens Institute of Technology Alice Squires has nearly 30 years of professional experience and is an industry and research professor in Systems Engineering at Stevens Institute of Technology in the School of Systems and Enterprises. She is a Primary Researcher for the Body of Knowledge and Curriculum to Advance Systems Engineering (BKCASE) and Systems Engineering Experience Accelerator projects. She has served as a Senior Sys- tems Engineer consultant to Lockheed Martin, IBM, and EDO Ceramics, for Advanced Systems Support- ability Engineering Technology
science classes in high school, but the physics was a little bit different and it pushed me towards engineering more than anything else.”Still another participant reported, “My freshmen year in high school I took a class called Engineering Exploration and it was then that I decided I was going to be an engineer. From that time forward there never was any questioning or debating whatsoever that I was going to be an engineer. It’s kind of strange, but there was never really any doubt in my mind that it was what I wanted to be”Many of the participants indicated having teachers in high school who were supportive andencouraged them to pursue their interest in math, science, and technology. Some of theseteachers
3.87 0.88 which I set my mind. e) I will be able to successfully overcome any challenges 3.76 0.82 in an engineering design project. f) I am confident that I can perform effectively on many 4.09 0.89 different technical and nontechnical tasks. g) Compared to other people, I can do most technical 3.60 1.04 tasks very well. h) Even when things are tough in a design project, I can 4.13 0.62 perform quite well.The answers
Education Review, vol. 63, no. 4, pp. 480–501, Nov. 2019, doi: 10.1086/705427.[15] R. A. Revelo and L. D. Baber, “Engineering resistors: Engineering Latina/o students and emerging resistant capital,” Journal of Hispanic Higher Education, vol. 17, no. 3, pp. 249– 269, Jul. 2017, doi: 10.1177/1538192717719132.[16] T. Chambers and C. E. Phelps, “Student activism: Impacting personal, institutional, and community change,” New Directions for Student Services, vol. 1994, no. 66, pp. 45–57, Jun. 1994, doi: 10.1002/ss.37119946606.[17] K. Field, “Mental health in Minnesota: Where student activism spurred change,” Chronicle of Higher Education, vol. 63, no. 12, p. A12, Nov. 2016.[18] P. Marr and L. Carey, “International students: A mindful
which therefore eliminated metaphysical and other more speculative questions as being logically ill- foundedIdealism What we perceive as the external world is in some way Not held to be relevant by most an artifice of the mind. engineers it is conjectured! Existentialism considers that action, freedom and Increasingly importantExistentialism decision as fundamental to human existence. perspective for Engineering to Underlying themes and characteristics, such as anxiety, take into account the Human dread, freedom. To a large extent
-themedand application-oriented science courses for non-science majors incorporates perspectives moreakin to engineering than traditional physical science courses. These recent efforts at motivatingthe learning of physics by understanding modern technology stand in distinct contrast to earlierclassic works such as Physics for the Inquiring Mind [59] and Physics for Poets [60], whichavoided technological applications and emphasized philosophical questions and naturalphenomena.These developments illustrate that demand and interest exist among the non-engineeringundergraduate population for courses on technological issues. It also demonstrates thatengineering faculty can develop and teach courses on technological topics to non-engineeringstudents. The
both basic sciences and engineering disciplines. Participant 5 “…I think a good tissue engineer is not purely an engineer and not purely a basic scientist. It's someone who straddles both fields or straddles multiple fields. Whether there's a camp of people that are developmental in training but see value in engineering approaches to either answering developmental questions or trying to harness developmental programs for tissue repair applications. I think that's a great example of people who care and are invested in biology but are also thinking about modulating or controlling those biologies for something translational. In my mind, people who can do that, who see value in both sides and can speak the speak of both sides