Paper ID #8098Interactive Session: Including Ethical Discussions in your Technical ClassesDr. Rebecca A Bates, Minnesota State University, Mankato Rebecca A. Bates received the Ph.D. degree in electrical engineering from the University of Washington in 2004. She also received the M.T.S. degree from Harvard Divinity School in 1993. She is currently Professor and Chair of the Department of Integrated Engineering program at Minnesota State University, Mankato, home of the Iron Range and Twin Cities Engineering programs. She was a 2011-12 AAAS Science & Technology Policy Fellow at the National Science Foundation.Prof
capital,belonging, engagement in the classroom, and others.Research Background & MotivationA motivation for the community-based experiences highlighted in the engineering educationpractices like service learning is to improve academic engagement. Working to improve interest,i.e., engagement, as well as aptitude enables not only an increase in the number of studentstrained for the technical workforce but also a broadening of their capabilities beyond the purelytechnical. Engineers with this broader world view will be poised to lead valuable technicalinnovation in the 21st century.1 The literature, gathered from higher education, K-12, andorganizational psychology clearly supports the importance of community in influencingengagement and
students looked at airportsecurity before and after 9/11, government use of biometrics, and privacy issues related to theuse of Facebook and government powers (e.g., wiretapping, laws introduced post 9/11).Student AssessmentStudents were given weekly quizzes to ensure that they kept up with the reading in the class.Points were also awarded for general participation in class discussion, attendance, enthusiasm,and attending the library sessions. However, the students’ final grade largely depended on thework they did for their final research paper. They were allowed to submit an initial draft, whichthey received constructive comments on, and then had to turn in a final research paper at the endof term. They also had to put together a presentation of
, reflection,articulation, and exploration.17 A summary of activities for the student teams is shown in Table 1together with the appropriate instructor- student interactions. The shaded activities form thefocus of this study. The project is introduced in 2-3 lecture periods, where the instructor presentsthe project task, the framework for the project, general technical background about the industrialcontext and some of the relevant engineering science, and the project deliverables and timeline.At this time, the students are also provided a design notebook and asked to record activity,keeping track of the run parameters, data analysis, interpretation, and conclusions and decisionsfrom the interpretation. This reflective activity is intended to help the
. Page 23.940.1 c American Society for Engineering Education, 2013 On Adopting an Inquiry Stance: A Case Study of Three Teachers as They Integrated InterLACE Technology to Encourage Student Sharing and ReasoningAbstractTo produce a more technically and scientifically literate population, we need to place studentideas at the forefront of science and engineering classroom activity so that those ideas can beexposed and refined and the students feel they have a stake in building that knowledge base.Accordingly the Interactive Learning and Collaboration Environment (InterLACE) Project hascreated a technological tool that allows students to post their thoughts via a Web-based platformto a
question and answer sessions facilitated through a chat tool c. Discussion Board, consisting of a thread for each Practice problemIn general, students were encouraged to utilize the resources that they found most useful to themas individual learners. Students could choose to participate in the Classroom Activities eachclass meeting. With this approach, they would be exposed to all fundamental course topics Page 23.1104.3through Lessons and Problem Solving guided by the Instructor in the classroom. Alternately,students could choose to access the Online Resources to review material independently.Students were not forced to choose an
Maps and How to Construct and Use Them,” Technical Report Cmap Tools 2006-01 Rev 01-2008, 2008.[9] J. Blankenship and D. Dansereau, “The Effect of Animated Node-Link Displays on Information Recall,” The J. of Expt. Educ., vol. 68, no. 4, pp. 293–308, 2000.[10] J. Sweller, “Cognitive Load During Problem Solving: Effects on Learning,” Cognitive Science, vol. 12, no. 2, pp. 257–285, Apr. 1988.[11] F. Paas, A. Renkl, and J. Sweller, “Cognitive Load Theory: Instructional Implications of the Interaction Between Information Structures and Cognitive Architecture,” Instructional Science, vol. 32, no. 1/2, pp. 1–8, Jan. 2004.[12] J. Moore, R. S. Pierce, and C. B. Williams, “Towards an ‘Adaptive Concept Map’: Creating an Expert
your group’s discourse. One way to do this is to bring in new ideas, theories, authoritative sources, etc. But don’t forget that asking good questions, critiquing ideas, monitoring your group’s progress, putting ideas together to rise above the general discourse, etc. are equally important ways to contribute. Overall the key here is that you are helping your group improve its collective understanding, theories and designs—not just exchanging opinions. (40 %) Write a two to five page essay explaining in-depth your understanding of one specific problem/idea that emerged from your group discourse. Below are a few steps to consider: 1. Reflect on how the knowledge related to this problem has advanced: • What were your
Paper ID #7481Using a Graduate Student Developed Trajectory Generation Program to Fa-cilitate Undergraduate Spacecraft / Mission Capstone Design ProjectsMr. Martin James Brennan, University of Texas, Austin Martin James Brennan developed a passion for Science and Mathematics at Mississippi State University (MSU), where he met his wife Holly. In December 2008, he received a Bachelor of Science degree in Aerospace Engineering with an emphasis in Astrodynamics, a Bachelor of Science degree in Physics, and a minor in Mathematics. He began his graduate career in Aerospace Engineering with a focus in Orbital Mechanics in
Paper ID #5807Does it matter who teaches a core mathematics course to engineering under-graduates?Mr. Ryan Boyd Cartwright, General Electric Ryan Cartwright is a Quality Engineer with General Electric in Clearwater, FL. He holds a Master of Science in Engineering Management (2011) and a Bachelor of Science in Industrial Engineering (2011) from the University of South Florida. He is currently performing work related to the implementation of Lean Six Sigma techniques, supplier quality management, and logistics optimization in a manufacturing environment.Prof. Autar Kaw, University of South Florida Autar Kaw is a Professor
23.277.2will provide detailed project description and resulting classroom activities that were developed asa result of the RET project.IntroductionOsteoblasts of a mammalian organism (mouse) are used in this experiment. The cell line ofosteoblasts are roughly 15-30 µm. in diameter and, if not scaffolding, are generally spherical inshape. This allows for a symmetrical shape to observe rotation accurately in an E-Field insolution. These cells are cultured, and then subcultured, with an optimal 1-2 day incubationbetween cultures. This insures scaffolding does not take place (If scaffolding begins cells are nolonger spherical/symmetrical for measuring rotation). Cell population must also be kept to aminimum to insure cells do not clump together and form
author teaches the Computer Programming for Engineers course, which is a required coursefor all engineering freshmen in all disciplines at Hofstra University. The course is about 2/3Matlab and 1/3 Excel. We have a variety of students. Some are eager to learn and highlymotivated. Others are much less enthusiastic. To make the course interesting and relevant, weuse problems from science and engineering as much as possible. The problems are specificallychosen to illustrate the various topics covered in the computing course and to show theusefulness of the computer in their solution. Special emphasis is given to choosing problems thatare of general interest to all the students, regardless of engineering discipline. Students need tobe familiar with
, onWashington, DC: The American Society for Engineering Education, 2008.3 Grady, H., and Codone, S., " From chalkboard to PowerPoint to the web: A continuum of technology," 2004 Page 23.123.12International Professional Communication Conference, pp. 217-222.4 Brown C., Johnson M., Lax J., “Educational Classroom Technology: What Works Best in the Engineering Context”,2007, 37th ASEE/IEEE Frontiers in Education Conference, Session S4J.5 Flores B., (1995-2007). "CAMPUS DIVERSITY FACTS”. [Online].http://research.utep.edu/Default.aspx?tabid=44271 , accessed 1/18/20116 The Hawthorne effect: A reconsideration of the methodological artifact.Adair
Paper ID #6099QUICK-RETURN MECHANISM REVISITEDProf. Raghu Echempati, Kettering University Raghu Echempati is a professor and graduate programs director of Mechanical Engineering at Ketter- ing with academic experience of over 25 years. His areas of expertise are Mechanics, CAE, Mechanism Design, Mechanical Engineering Design, Vibrations, Finite Element Analysis and Sheet Metal Forming Simulation. He is a fellow member, advisor and chair of the ASME local chapters. Also, he is a member of ASEE and SAE. He is a co-organizer of Body Design and Engineering Session of SAE World Congress and an associate editor of Journal of
beused as a case study to illustrate service learning in action.OverviewEvery engineering program has some form of a senior, capstone design project course. Thepurpose of these courses is for student engineers to apply what they have learned in previouscoursework toward the design of a project within specified constraints. As ABET criterionstates, “Students must be prepared for engineering practice through a curriculum culminating in amajor design experience based on the knowledge and skills acquired in earlier course work andincorporating appropriate engineering standards and multiple realistic constraints [1].”We’ve had some success in incorporating service learning activities into our capstone designcourse [2]. Based on this success, we
general, if what you have to say 10is relevant to the situation at hand, a person shouldn’t be afraid to speak up—but effectivestatements are short and sweet. These insights come from observing teams in FIRST LEGOleague. Less effective teams do not communicate—members seem to keep objections tothemselves, leaving problems un-addressed. Teams that do well are open with each other andfocused on the task that they have at hand. Kids in FLL experience firsthand the various styles ofteamwork in a technical environment, giving them many years to develop their own approachbefore entering into the professional world.Communication From a coach’s perspective in FIRST LEGO League, a constant
sizes that most laboratories are limited to. One potential solution to enhancingstudent learning in the traditional classroom environment is to incorporate take-homeexperiments as part of individual classes as homework assignments or projects. Take-home experiments used as engineering course assignments are not a new idea, but theyare also not widely used. Some early work on take-home experiments included the work byBedard and Meyer 1 who developed two experiments investigating viscous properties of fluids.Scott 2 developed two fluid-statics experiments that were part of a laboratory class, but were Page 23.610.2assigned as take home
the protection of trade secrets and confidential company data, communications that areprivate and confidential, and keeping a competitive advantage by protecting key technology andinformation. Therein lays the fundamental tension and intellectual property at the heart ofuniversity-industry collaborations/partnership, is often the most contentious issue.Intellectual Property (IP) has value to both universities and industry. But what exactly is IP?Intellectual property refers to rights that attach to intangible creations. In university-industrypartnerships, the main IP issues generally involve patents and copyrights, with trademarks tolesser extent. IP, in general, refers to a collection of rights held by not only inventors, but alsoauthors
it in various real life contexts. Through the activitydeveloped on a motion context, students can establish the relationship between position andvelocity graphs, the latter establishing the former’s behavior. The interpretation of each of thesegraphs becomes a useful tool in order to describe in words the effects in the character motionsimulation that they represent.In what follows we describe a path of four didactic activities developed in the classroom, whichallow the establishment of generalizations on the qualitative relationships of the position andvelocity graphs; but through an environment that allows a different way of reaching theserelations. It must be said that the classroom sessions allowed for plenty of motion orientedscenarios
Spaceflight with Ballooning.1. The potential of using balloons to loft weather sensors into the upper atmosphere can be motivated in as little as a 1-hour session with groups ranging from college age to elementary school children (as young as 2nd grade) using Morse-code-transmitting Anasonde 3M radio kits15 lofted by 3-ft-diameter paddle balloons. Non-flight kits were modified to snap together so they can be built over and over with different groups of students.2. Extra-curricular weather ballooning constitutes the bulk of the MnSGCs ballooning program, with over 60 missions flown to date. (Note – There have only been four freshman seminar balloon flights.) The MnSGC has funded an extra-curricular Ballooning Team at the U of MN every
the efficiency of collection and scoring of in-class work.DyKnow has the ability to retrieve panels from each student in a session, and this feature is idealfor collecting an electronic in-class problem. Figure 1 shows a sample in-class problem, Page 23.1330.4including student’s work, retrieved as a panel in DyKnow (student answer is in blue). In-class problem in moderator ink Student’s work in participant ink Figure 1: In-class Problem in
below. Themean rating of the helpfulness of the videos was 4.44 on a scale of 1 to 5, with 5 being the mosthelpful. Two-thirds of those who used the video recordings reported using them at least once aweek. In general, nearly all students made use of at least some of the electronic resourcesprovided to them, as shown in Figure 4. Figure 3: Reasons for student use of video recordings Page 23.720.6 Figure 4: Electronic resources used by studentsAll of the survey respondents were at least somewhat familiar with Maple prior to starting theDifferential Equations class, with a self-rated intermediate level
by the average engineer and devisemethods to address these particular problems within the engineering classroom.The goal of any engineering course should be to produce technically competent engineers who canproduce written text that is free of mistakes in both the technical content and the presentation of thatmaterial and utilize that skill in the working world. If communication skills are to be scrutinized inthe engineering classroom by the engineering faculty member, it is necessary to provide informationon specific areas of concern along with ways to address these concerns. By focusing on problemsthat are generally encountered in engineering text, the faculty member does not have to assume therole of English teacher. There will only be a
describes the educational approach, keyoutcomes, and partnership model of the YES program.IntroductionIn an opinion article published online by U.S. News & World Report, the presidents of two non-partisan think tanks (Matt James of the Center for the Next Generation in San Francisco andNeera Tanden of the Center for American Progress in Washington, D.C.) wrote that by 2030,China is expected to have 200 million college graduates, and by 2020 India will be graduatingfour times the number of college graduates as the United States1. To put this in perspective interms of graduates with technical degrees, India produces around 750,000 engineers per year2,China over 1.9 million engineers3, and the United States close to 140,000 engineers4
could beimplemented, the iterative design structure was selected for this course. This structure allows thestudents to complete one cycle per project within the course timeframe. See Figure 1 for thesteps involved in the engineering design process. Figure 1. Steps of the engineering design process5.Implementing design education at the freshman level requires the facilitators to be aware of thestudents’ technical levels, expectations, and previous experiences. Developing the students’ability to understand and use the design process when tackling any engineering problems is muchmore important than the project-specific solution. The objective is to develop engineers capableof solving problems in a variety of situations
: CE = 17.7; EE = 14.7; IE = N/A; ME = 16.8; PDM = 14.2Target: 75.0%Observations: For the second semester of co-op, the ratings of students on quizzes taken related to targeted material on technical writing was below the target level for CE, EE and ME students, and was acceptable (above the target) for PDM students. In general, the scores on the quiz for Technical Writing Module 1: Design and Progress Reports were below target level of 75.0%, and scores for Technical Writing Module 2: Proposals and Instructions were at or above the target level for all majors.Proposed Actions
, students were invited to complete a survey.The results of the pencast surveys are given in Table 1 and Figure 1 and Figure 2 below.Accesses in Table 1 was generated by counting the number of times a student clicked on aparticular pencast link through the course webpage. Table 1 shows that students thought thepencasts were easy to read, had just about the right number of steps, were easy to follow, and hadappropriate pacing.Table 1. Summary of pencast surveys and accesses Pencast # 5 6 7 8 Length 27:21 21:48 37:24 50:59 Accesses 137 139 157 138 Total Responses 63 60 63 36 Easy to Read 88% 93% 97% 81% Right Number of Steps 84% 85
) (11 in AE) Science (1) Figure 11. Departments at Texas A&M University where Camp SOAR seniors applied.Both the AE Department and Texas A&M University benefitted from Camp SOAR. Of course,the argument could be made that the students would have decided to attend Texas A&M anddeclare the same majors without the benefit of Camp SOAR, but survey feedback and detailedfeedback from Facebook indicate that the camp had a major effect on the perception ofengineering in general by the student and AE in particular with comments, such as “…I wantedto thank everyone who made Camp SOAR such an awesome experience! I had a blast, but moreimportantly I now truly feel like Texas A&M is where I belong! Hope to see
thecourse made any significant difference in the student’s understanding of the underlyingMathematics and Engineering principles. Results from this study, generally encouraging, werepublished last year18.Having completed Pre-Algebra in 6th grade, algebra in 7th grade, Geometry on line during 8thgrade and Algebra 2 in class during 8th grade, one of the interview subjects was in an advancedlevel Pre-Calculus in 9th grade. He is at least two years ahead in math compared to the regular9th grade cohorts. The other subject was also at a somewhat accelerated math track and hascompleted Pre-Algebra in 6th, Algebra 1 in 7th, Geometry in 8th grade and was scheduled inAlgebra 2 in 9th grade while in the robotics course. The details of the interviews conducted
, combustion testing, flares, process heaters, processburners, flare gas recovery, metallurgy, and equipment fabrication. Some instructors taughtmultiple topics. Each topic was covered in one or two 75-minute face-to-face sessions taughttwice a week at the local university. Two of the sessions, combustion testing and equipmentfabrication, were held at the industrial company where students were given a lecture and then atour of world-class combustion testing and manufacturing facilities (see Figure 1), respectively.All lectures including the tours were video-taped and uploaded to a server at the remoteuniversity for their students to watch at their convenience. (a) (b)Figure 1