continuous improvement.A. Videotape Series on Applied Ethics in Engineering PracticeA 15 to 20-minute dramatized videotape focused on a specific ethical dilemma often encounteredin day-to-day engineering practice is being developed for use in the classroom or in-housetraining programs for the young (and perhaps not-so-young) practicing engineer. At present, ascript has been written and approved, a production company selected and the Institute is workingon the arrangements for marketing and distribution of the first in a potential series ofpresentations.B. Engineering Contracts CD ROM/Videotape SeriesTerra Insurance Company has developed a series of short educational presentations for thegeotechnical engineering community dealing with common issues
Undergraduate Student Administered SolidWorks ModuleIntroductionThe overall course goals of most first-year engineering design courses are to introducestudents to a design process through hands-on learning activities, to gain experience ingraphical communication using software such as AutoCAD, SolidWorks or Pro Engineer,and to inspire and instill an appreciation for the engineering profession, its ethics, andpractices. At Northeastern University where experiential education is at the forefront oflearning there is a common first-year curriculum for all majors in engineering. Thiscommon first year makes it difficult to provide the student with all the tools needed fortheir first cooperative educational experience (co-op). Students enter
various VR gamemodules, their contributions to student learning, and how the games and tools together fitseamlessly within the pre-engineering curriculum, particularly the Project-Lead-The-Wayprogramming.INTRODUCTIONA number of recent reports make it clear that the United States is losing ground on key indicatorsof innovation and progress because of its poor performance in teaching math and science. Pre-college education, in particular, is lagging well behind its mandate to educate all children tohigher standards especially in areas that prepare students for science, technology, engineering,and mathematics [1]. Therefore, developing educational practices and settings in our K-12classroom becomes extremely important; especially the ones that
' elastic, thermal, and physical properties.[18,19]Mechanistic understanding regarding the damage and failure mechanisms of CMCs has beenprovided. In addition, interface problems have been investigated to study the effect of coatingthickness on fracture behavior[20,24,25,30,31] and to search for oxidation-resistant coating.[21]Significant progress has been made concerning the understanding of the influence of fiber fabricorientation on fracture and fatigue behavior of CFCCs.[11,14,15] Microstructuralcharacterization of CMCs using the latest technology, such as atomic force microscopy(AFM)[32], and high-resolution transmission electron microscopy (TEM),[33] and dedicatedinterfacial fiber microprobe,[24,25] has been conducted before
studentsincluding non-engineering majors. The purpose of this paper is to illustrate how this coreIntroductory Electrical Engineering course may translate to an overview of electrical engineering forintroductory engineering students deciding on a major course of study or to an accessible,informative science track elective for liberal arts majors. It has long been recognized in the engineering education community that is useful to conveysome core knowledge of underlying physical system components. For instance, mechanical engineersmay study electric circuits and electrical engineers may study thermodynamics. The idea of a corecompetency also exists at the USNA where it includes not only non-electrical engineering but alsoliberal arts majors. As
AC 2010-624: THE ARTIFICIAL KIDNEY: INVESTIGATING CURRENTDIALYSIS METHODS AS A FRESHMAN DESIGN PROJECTNoelle Comolli, Villanova UniversityWilliam Kelly, Villanova UniversityQianhong Wu, Villanova University Page 15.1205.1© American Society for Engineering Education, 2010The Artificial Kidney: Investigating Current Dialysis Methods as a Freshman DesignProjectAbstract A new project based freshman engineering course has been developed at VillanovaUniversity to introduce students to the different engineering disciplines. The goal of this paper isto evaluate the effectiveness of using an artificial kidney design project in this course. Thekidney is the human body’s organ of
Page 10.1198.1taught courses into online versions is very important to create a pool of information andcommon body of knowledge that enriches all involved. Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering EducationThe author participated in several workshops and seminars and also received technicalassistance locally that helped him transfer one of the courses he teaches at Eastern IllinoisUniversity, School of Technology, into a web course for Internet delivery on-line. Thecourse is titled “Construction Project Management”. (3)This paper compares on-line delivery mode to the traditional F2F and summarizes thesteps taken by
information that can prepare learners to solve complex problems. Complex problems can range from difficult,technical research problems to market strategy development where many variables are illdefined. The content forming the research hypothesis and models that are leading to education focused recommendations are based on both classroom and industrial experience. The concept is that the classroom environment does not typically lend itself easily to the instruction of techniques that are used to solve complex problems in industry or even more challenging; investigations in the academic research environment. This paper will focus on the comparison of the classroom to industry, so as to illuminate the education opportunities for the majority of
University of Tennessee and the Georgia Institute of Technology.Dr. Timothy Kennedy P.E., Abilene Christian University Dr.Timothy J. Kennedy, P.E. is the Executive Director of Engineering and an Assistant Professor in the Department of Engineering and Physics at Abilene Christian University. His professional experience has focused on water reuse, water and wastewater treatment, additionally, he has an interest in point of use treatment technologies for developing regions, and preparing engineering students to contribute the engineering industry early and often.Mr. Raymond Earl Smith, Abilene Christian University Before coming to Abilene Christian University’s Department of Engineering & Physics, Raymond spent 43 years
FEDERAL BUREAU OF INVESTIGATIONCASE EXAMPLE: NON-TRADITIONAL COLLECTORCHINESE CITIZEN’S THEFT OF WEAPONS TECHNOLOGY FOR CHINESEEMPLOYMENT OPPORTUNITYA Chinese citizen was employed by a U.S. company thatspecializes in weapons, aerospace, communication, and The Chinese citizen stole thousands ofelectronic equipment development for U.S. government electronic files containing technical in-agencies. The Chinese citizen stole thousands of electronic formation about the company’s weaponsfiles containing technical information about the company’s systems and then traveled toweapons systems and then traveled to China with the files, China with the fileswhere
Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American society for Engineering EducationSince the assignments are somewhat extensive, the team members and managers need to decidethe best approach to completing the assignment in a timely manner. They need to decide if thework should be divided between team members or whether each member should do everyquestion and then all compare answers with one another. They begin to realize that they have aresponsibility to a colleague. They also may need to deal with a situation where one memberdoes not do his/her share of the work.Every three weeks (in a 15 week semester), an exam is given. Students can use
evaluation of improvement of these twoinstruments.IntroductionResearch findings from multiple studies indicate that undergraduate students haveunderdeveloped self-directed learning skills, particularly in the area of information literacy1–3.This lack of knowledge and skills, which are critical for life-long learning, can challengeengineering graduates who must constantly renew and expand their skills in our rapidly changingknowledge-based society.The curriculum of technical majors has been estimated to have a half-life of less than five years4.Thus, one of the most necessary skills students can take away from a technical education is theability to become life-long learners. Life-long learning has historically been recognized asimportant to the
education limiting their motivation andsuccess in math and statistics. Mathematics and Statistics serve as foundation for all programs inScience, Technology, Engineering, and Mathematics (STEM); therefore, lower success inmathematics can also affect their decisions to follow a STEM career [12], but also underminetheir success in engineering courses [13], [14]. The issue of anxiety and lack of confidence intheir abilities can be worse for female students who are often raised under the stereotypic viewthat females are not good at math [15].Enhancing math problems with RL examples can provide deeper understanding of math conceptsand skills [5], [3]. It can also motivate students to learn more about how math can be used in reallife, experiencing a
ISolution. We first draw the free-body diagram and a set of compatible virtual displacement forthe beam as shown in Fig. 7. Note that we draw this virtual-displacement diagram with a strategysuch that no unknowns except MA will be involved in the total virtual work done. Fig. 7 Free-body diagram and virtual-displacement diagram for use in solving for MA Proceedings of the 2004 American Society for Engineering Education Midwest Section ConferenceReferring to Fig. 7 and applying the virtual work principle, we write δU = 0: MA (δθ ) + 300 (−3δθ ) + 200 (6 δθ ) + 600 (− 6 δθ ) + 300 ( 4δθ ) = 0 MA = 2100 MA = 2100 lb ⋅ ft %Remarks. Notice that the free-body diagram for this Gerber beam
Professor at Utah Valley University since 1990. Instructed Mathematics and Physics as an adjunct at University of Utah and Westminster College.Dr. Heechang Bae, Eastern Washington University c American Society for Engineering Education, 2018 OPTIMIZING THE CURRICULUM IN AN ENGINEERING STATISTICS COURSE WITH REALISTIC PROBLEMS TO ENHANCE LEARNING 1 Kyle Larsen, 1Hani Saad, 1Awlad Hossain, 1Heechang Bae, 2Abolfazl Amin 1 Eastern Washington University Department of Engineering and Design Cheney, WA 99004 2 Utah Valley University Department of Engineering and Technology Provo, UT 84058AbstractThe primary objectives of an engineering
do chores than math homework [8]. While that may be great for their parents’ dirty dishes, it calls for educators to cultivate passion in the fields of mathematics and science[1]. According to the Programme for International Student through innovative and provocative outreach. There has beenAssessment Report (PISA) [2] and the National Academies’ much effort put forth to improve K-12 education, to“Rising Above the Gathering Storm” [1], the US is behind implement hands on activities in the classroom, to providewith respect to STEM education
future endeavors. Students, therefore,appear to have accepted that collaborative learning, teamwork and communication skills areimportant aspects of the curriculum. It is time for the faculty to utilize these concepts andenhance the collaborative learning process in engineering programs.It has been mentioned that the development of communication skills is important for engineeringstudents. In fact, it has been written that engineers must become involved in broader issues andvarious non-technical groups10. This often requires the use of presentation and speaking skills.To assist in this effort, the Accreditation Board for Engineering and Technology requires thatoral communication skills must be demonstrated within the curriculum by each
. Yikilmaz, H. Segale, J. Silverman, S. Yalowitz, and E. Sato, “Shaping Watersheds Exhibit: An interactive, augmented reality sandbox for advancing Earth science education,” presented at the American Geophysical Union, Fall Meeting 2014, San Francisco, CA.[8] H. Jenkins, R. Gant, and D. Hopkins, “Shifting Sands and Turning Tides: Using 3D Visualization Technology to Shape the Environment for Undergraduate Students,” presented at the American Geophysical Union, Fall Meeting 2014, San Francisco, CA.[9] T. L. Woods, J. A. Woods, and M. R. Woods, “Using the Kreylos Augmented Reality Sandbox to Teach Topographic Maps and Surficial Processes in Introductory Geology Lab at East Carolina University,” presented at the Geological Society
complete solution available and literally“Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright © 2001, American Society of Engineering Educationresolve the engineer’s ethical dilemma. If the engineer must ultimately terminate therelationship in order to uphold his/her ethics then the qualities of competence,confidence and charisma that have been espoused in this paper as the professionalengineer’s shield will assuredly continue to serve him/her well in all future endeavors.Biography:Francis A. Di Bella, PE is an Assistant Professor, Northeastern University, Boston, MA.; College ofEngineering , School of Engineering Technology. Mr. Di Bella’s professional engineering
focus10. In the late 90’s and throughout the 2000’s advanced courseson robotics dealt with path planning, navigation, autonomy, communication and in general allaspects of mobile robots11. At the same time, one witnessed the use of robotic kits, such asLego12,13 and BOE-bot14 in science fairs and science museums in encouraging K-12 students inscience and as an eventual vehicle of further study in SMET disciplines.4.0 The Robotics Engineering Program at WPIThe Robotics Engineering Program at WPI is a new program that will educate young engineersfor the robotics industry and prepare students for graduate work in robotics. The goals of theprogram are to: • Educate young engineers for the robotics industry and prepare students for graduate work
Namibia for joint engineering projects• Applications of Internet to enhance international exchanges from new England firms to firms in southern Africa. Page 6.146.4Prodeedings of the 2001 American Society for Engineering 193 Education Annual Conference & ExpositionCopyright O 2001, American Society for Engineering Education S o u t h A f r ic a E x p o r t s t o U S A S o u t h A f r ic a Im p o r t s f r o m U S A 4500 4000 3500 3000 US$(m ) 2500 2000 1500
responsiveness of the curriculum to the technological changes. The dataare generally gathered from students, alumni, and industry stakeholders. Additional data fromonline sources has not been fully exploited by industrial engineering educators. As we haveobserved in recent years, the use of massive online data has improved the decision makingaccuracy of many companies such as Microsoft, Facebook, Amazon, and Google. We believethat using online data such as industrial engineering related job posting data would also improvethe efficiency of the industrial engineering curriculum design and review process.This paper presents the use of the job posting data in industrial engineering curriculum designand review process. We illustrate how the user-based
,” in 2016 IEEE Global Engineering Education Conference (EDUCON), Abu Dhabi, UAE, 10-13 April 2016, 438-442. [Online.] Available: IEEE Xplore, ieeexplore.ieee.org [Accessed January 18, 2020].[3] T. Ozkul, “Using patents as a tool for reinforcing constructivist learning environment in engineering education,” International Journal of Education and Information Technologies, vol.2, issue 2, 157-166, 2008. [Online] Available: Citeseer, citeseerx.ist.psu.edu [Accessed January 26, 2020].[4] D. Schaefer and J. H. Panchal, “Incorporating research into undergraduate design courses: a patent-centered approach,” International Journal of Mechanical Engineering Education, vol. 37, no. 2, 98-110, April 2009
) Professional skills assessment: Is a model of domain learning framework appropriate? International Journal of Quality Assurance in Engineering and Technology Education, 4(4), forthcoming.4. Baker, D. P. & Salas, E. (1992) Principles for measuring teamwork skills. Human Factors: The Journal of the Human Factors and Ergonomics Society 34(4), 469-475.5. Ellis, A., Bell, B., Ployhart, R., et al. (2005) An evaluation of generic teamwork skills training with action teams: effects on cognitive and skill-based outcomes. Personnel Psychology 58(3), 641-672.6. Koski, E. L. & Tubbs, S. L. (2010) Utilization and implementation of the predictive index ® (PI) for global leadership development. The Business Review 15(2), 74
environmental engineering. He received his B.S. degree in Chemical Engineering from Brigham Young University in 1981 and his Ph.D. in Chemical Engineering from Rice University in 1985.Randy Lewis, Brigham Young University Randy S. Lewis is Professor of Chemical Engineering at Brigham Young University and an Adjunct Professor of Chemical Engineering at Oklahoma State University. He received his BS and PhD degrees in Chemical Engineering from Brigham Young University and Massachusetts Institute of Technology, respectively. His research interests include biomaterials development and the utilization of renewable resources for the production of chemicals
Standards (NGSS)foregrounds the importance of collaboration in science and engineering practices by integratingcommunication as a fundamental criterion at all levels of K-12 education: “Engineers need to beable to express their ideas, orally and in writing, with the use of tables, graphs, drawings, ormodels and by engaging in extended discussions with peers.” 13 Such communication practicesare necessary for generating design solutions and for planning and carrying out collaborativeinvestigations.Previous studies indicate that young learners encounter communication challenges related totask, relational, and identity issues when collaborating on engineering design projects.14, 15 Otherresearch has identified effective scaffolding to support middle
skills or qualities thatshould be also pursued in the high school setting to encourage the students to be successful at theuniversity level.Today, in spite of all the technology and educational emphasis surrounding secondary schoolstudents, freshmen entering into the university to study engineering are not prepared for whatthey face. High school student believe they are technology literate because they have a cellphone but few have ever pondered how the cell phone works or how they are able to talk, orshould one say, text their friends. Most students know how to use a computer but few havetaken the time to “look under the hood” and see how it works. Students are very proficient atcomputer games such as Guitar Hero and Rock Band but few have ever
very much like the ideal conditions discussed in textbooks.The next experiment consists of investigating the drive circuits used to switch the main powertransistor. The major topology for the circuit is given to the student but the student is requiredto calculate values for the major components. The current laboratory uses optically coupledcircuits to isolate the power transistor from the control system. Circuits with and without atotem pole stage are investigated to observe the improvement in switching speed obtained by thatstage.The third assignment is actually not a laboratory experiment but a circuit design and simulation.In this assignment the students are to find values for the major power components as well asgains required in the
Midwestern university. The paper discusses themotivations and beginnings of ¡Vamos!, summarizes efforts to develop the e-zine, and theoutcomes of these efforts. These strategies have the potential to address current financialchallenges faced by US academic programs, especially in the areas of outreach and workforcedevelopment.In 2009 ¡Vamos! was established as the Spanish version of Go!, which is a successful onlinemagazine in English on educational and career opportunities in transportation. Since August2010 ¡Vamos! has involved two unlikely partners: the Institute for Transportation (InTrans) andthe Spanish program at Iowa State University (ISU). The partnership began as a class experimentin a Spanish translation course. This has evolved into a
, J., Starkey, A., and Kissick, B. (2007). Fostering students to be lifelong learners with science literacy, information fluency, and communication skills. Page 14.761.12 6. Engineering Criteria 2000. Accreditation policy and procedure manual. Accreditation Board for Engineering and Technology. Baltimore, MD: ABET, Inc. November 2000.7. Sheppard, S.D., Macatangay, K., Colby, A. and Sullivan, W.M. (2009). Educating Engineers: Designing for the Future of the Field. Washington: Carnegie Foundation.8. Smith College Ad Hoc Committee on Information Literacy. (2008) Final Report. April 14.9. Smith