online learning: greater flexibility maypromote greater procrastination with concurrent negative consequences. Procrastinationis especially prevalent among novice online learners, specifically the male traditionalcampus-based undergraduate student. This paper investigates the relationship betweenperformance and procrastination for campus-based “traditional” students enrolled in afully online, large enrollment (300+ students a semester), general education class.Procrastination was rampant with 40% of students typically starting the weekly lesson(s)on the due date(s). Procrastinators had reduced grades (6% lower or an average “A” to“B+/A-” transition) for weekly reflection activities. Males were more susceptible tonegative consequences in
is successfully structured when group members perceive that they arelinked with each other in a way that one cannot succeed unless everyone succeeds. The positiveoutcomes of interdependence are; (a) each group member's efforts are required and indispensablefor group success and (b) each group member has a unique contribution to make to the jointeffort because of his or her resources and/or role and task responsibilities.Promotive interactionStudents need to do real work together in which they promote each other's success by sharingresources and helping, supporting, encouraging, and applauding each other's efforts to achieve.There are important cognitive activities and interpersonal dynamics that can only occur whenstudents promote each
The Senior Design Process at Purdue University Vincent P. Drnevich, P.E., Ph.D. Purdue UniversityAbstract This paper examines the participation of practitioners in senior design based onexperience at Purdue University where senior design involves all seniors in their last semesterbefore graduation and is titled “Civil Engineering Design Project”. It is described in the catalogas “Planning, design, and analysis of a civil project; an integrated and realistic group projectinvolving as much as possible all major aspects of the civil engineering profession.” This highenrollment course (30 to 100 students per semester) has been taught
Copyright 2005, American Society for Engineering EducationBibliography1. Hutzel, W. J., “Energy Conservation in Thermal Power Courses,” Proceedings of the 2002 ASEE Annual Conference and Exposition, Montreal, Canada, 2002.2. Schumack, M., “Incorporation of an Energy Conservation Theme into Thermal Science Courses,” Proceedings of the 2002 ASEE Annual Conference and Exposition, Montreal, Canada, 2002.3. Hodge, B. K., “Alternate Energy Systems A New Elective,” Proceedings of the 2002 ASEE Annual Conference and Exposition, Montreal, Canada, 2002.4. Aung, K., “Energy Engineering: Development of a New Senior Elective Course,” Proceedings of the 2004 ASEE Annual Conference and Exposition, Salt Lake City
. 6. B. Formwalt, M. Hayes, D. Pittner, D. pack (1997), “Undergraduate research: How can it be made effective?”, ASEE annual conference, Milwaukee, WI 7. W.D. Jemison, W.A. Hornfeck, and J.P. Schaffer (2001), “The role of undergraduate research in engineering education”, ASEE annual conference. Albuquerque, NM 8. B.S. Sridhara (2004), “Undergraduate research program in the basic and applied sciences at Middle Tennessee State university”, ASEE annual conference, Salt Lake City 9. Roger V. Gonzalez, Juan Lopez, and Paul Leiffer (2004), “Is a successful research laboratory possible with undergraduate students alone?”, ASEE annual conference, Salt Lake City. 10. Stacy Eisenman
and M. J. Smith, Mentoring Students to Technology Careers, Proceedings of the 2004 ASEE Annual Conference, 2004.4. D. J. Kukulka, D. S. Barker, J. Favata and R. Sanders, Implementation of the Computer Science, Engineering Technology, and Mathematics Scholarship (CSEMS) Program at Buffalo State College, Proceedings of the 2004 ASEE Annual Conference, 2004.5. B. M. Moskal, D. Lasich and N. Middleton, Science Related Degrees: Improving the Retention of Women and Minorities through Research Experience, Mentoring and Financial Assistance, Proceedings of the 2001 ASEE Annual Conference, 2001.6. T. M. Bayles, A. M. Spence and C. Morrell, Improving the Freshman Engineering Experience, Proceedings of the 2004 ASEE Annual
, Texas A&M University/Kingsville, and University of Kansas.Bibliographical Information1. J. A. Lee, D. M. Castella, and S. G. Middleton, “Faculty Perceptions of Academe’s Evaluation System,” Journal of Engineering Education, 263-267 (July 1997).2. K. A. Higley and C. M. Marianno, “Making Engineering Education Fun,” Journal of Engineering Education, 90 (1), 105-107 (January 2001).3. B. G. Davis, Tools for Teaching, Jossey-Bass Publishers, p.100, 1993.4. M. O. Haggler and W. M. Marcy, “Strategies for Designing Engineering Courses,” Journal of Engineering Education, 88 (1) 1, 11-13 (1999).5. J. A. Lynn, “Distance Education Options for Engineering Education,” Proceedings of the 2003 ASEE
. M. Gruntman, Blazing the Trail: The Early History of Spacecraft and Rocketry, p. 462, AIAA, Reston, Va., 2004.5. B. McCormick, C. Newberry, and E. Jumper, eds., Aerospace Engineering Education During the First Century of Flight, AIAA, Reston, Va., 2004.6. C. Durocher, C., Our future, our hands, Aerospace America, 41(2), 3, February 2003.7. E. Teller with J.L. Shoolery, Memoirs: A Twentieth Century Journey in Science and Politics, Perseus Publ., 2001.8. R.E. Kaplan, Aerospace Engineering at the University of Southern California, in Aerospace Engineering Edu- cation During the First Century of Flight, eds. B. McCormick, C. Newberry, and E. Jumper, AIAA, Reston, Va., 2004.9. M. Gruntman, R.F. Brodsky, D.A. Erwin, and J.A. Kunc
sufficientlyrich and dynamic to provide the emphasis for many of the modern developments in electricalengineering. ∇ • D = ρv , ∂B ∇×E = − , ∂t ∇•B = 0, ∂D ∇×H = J + . ∂t Figure 1. Maxwell’s EquationsAlthough Maxwell’s equations are the basis for EM and much of electrical engineering, EM hassurprisingly had a roller coaster existence in engineering curricula. Maxwell's equations wereseldom mentioned in engineering curricula before 1930.1 The absence of Maxwell's equationsfrom college
and staff development, both of which have beenpossible due to program growth.References1. Asgill, B. A. and Bellarmine, G. T. (2003). Effective distance delivery of technical courses through interactive instruction: Experiences in delivering technical content at a distance. Proceedings of the South Eastern Section of the American Society for Engineering Education Annual Conference & Exposition.2. Carroll, B. D., Osborne, W. P., Behrooz, S., Cantrell, C. D., Tjuatja, S. (2002). CS/EE Online—Lessons Learned in planning, developing, and operating a joint Web-based master’s program. Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition.3. Easton, R. and
. Included are adetailed description of the major components of the Leadership Institute, characteristics of thewomen faculty members who enrolled in the 4-day program, a summary of participants'leadership activities to date, and an analysis of participants' pre-institute leadership goals.Sixteen women faculty participated in this first of three leadership institutes. Data from theseparticipants regarding the value and effectiveness of the first institute are presented as well asconclusions and plans for future work.I. INTRODUCTIONThe purposes of this paper are twofold. First, we describe the rationale behind and thedevelopment and implementation of a National Science Foundation (NSF)-sponsored LeadershipInstitute for tenured faculty women in
toimagine an age of the Citizen Engineer – socially conscious engineers engaged inproactively tackling the enormous challenges that face the world today. How, through us,could ASEE become a critical player in solving the world’s greatest challenges? Forexample, how could corporate partners advocate for funding needed for engineeringeducation and research in ways that academia cannot? Where do we begin? Why? How?What do we know? What do we need to learn?In our own membership are citizen engineers. Who are we? Several activist memberswho met at the last conference will share our answers to these questions.Charles Pezeshki will share his experience as an engineer activist for the environment,including his successful campaign to save forests in the
Explaining Faculty Involvement in Women's Retention Laura Kramer Montclair State University After a period of rapidly increasing female enrollments in engineering (from the mid1970s to the late 1980s), the percentage of undergraduate degrees earned by women climbedvery slowly and has been stuck near twenty percent for more than ten years. Without moredirectly confronting and responding to a relatively unchanged set of cultural and institutionalfactors, gender integration in engineering may have gone about as far as it can. The researchdescribed in this paper helps to fill in the picture of the engineering faculty, whose role(s) androle
professional degree. 4. The profession should encourage continued growth and improvement to prepare students to assume their places in the workplace with skills that are current. 5. The profession should participate fully in a future society characterized by the lifelong learning opportunities afforded by new information and communication technologies. 6. Professional education in architecture should continuously evaluate and respond to the demands of the ICT industry for creativity and innovation. 7. To seek balanced development of all industrial sectors, considerable resources must be devoted to enabling the high-technology industry to meet the needs of those other sectors.References1) Allen, B. and Feldman, R. (2000
1 Agricultural Engineering Education in Developing Countries S. Fernando, S. Bhushan and M. Naveen AbstractAgricultural Engineering or Biological (Systems) Engineering is still considered a fairly newprofession not only in developing countries but also in many of the developed countries. Althoughcivil, mechanical, chemical, electrical and industrial engineering are well established asengineering subdivisions, Agricultural and Biological Engineering is still not considered as adirect engineering discipline in many of the 162 developing countries in Asia
esheyban@vsu.edu gjavidi@vsu.eduAbstractTechnology is having a dramatic effect on colleges and universities, producing what may bethe most challenging period in the history of higher education. One form of the convergenceof technology and education is distributed learning. The World Wide Web (WWW) providesalternative means for delivery of the courses and services, providing learners with anextraordinary range of options. Distance learning methods are being developed andimplemented to offer educational opportunities to those who are unable or choose not toattend an educational institution on a conventional, scheduled basis. There are few, if any,studies that have attempted to evaluate the learning achieved through interactivity of
the attic to cover the insulation. The average temperature outside in the winter-time isdetermined to be 10°C and the temperature inside the attic will be maintained at 21°C. Assumethe inside wall temperature is equal to the room temperature. One wall of the attic is measuredto be 7 m wide and 2 m long. The price of the fuel that operates the furnace heating the attic is$0.03/ MJ ($0.03/MW-s). a.) How much heat was lost through the attic wall before the renovations took place? What is the daily cost of the fuel without insulation? Page 10.605.10 b.) How
Education Annual Conference & Exposition Copyright 2005, American Society for Engineering Educationactivities mentioned have gone on to graduate study. For the faculty, the program helpeddevelop course material, gather information for proposals, and developed conferencepublications. The faculty also learned a great deal about working closely with and managingstudents. Such opportunities are not usually available in regular undergraduate engineeringcourses. The authors recommend that the undergraduate research programs should beencouraged, especially for students interested in pursuing graduate studies.5. Bibliography1. M. P. Hodge and B. D. Lichter, “The union of therory and practice,” Journal of Engineering
., “A Supplemental Resource for Teaching Engineering Economy,” Proceedings of the 2002 American Society for Engineering Education Conference, (CD-ROM), June, 2002. 3. Stanley, B. and J. L. Lunsford, “JAL Will Buy 30 Boeing 7E7s: Airline’s Order Gives a Lift to Sluggish Sales Campaign of Jet Maker’s Dreamliner,” The Wall Street Journal Online, retrieved at http://online.wsj.com/article/0,,SB110371939261207056,00.html on December 23, 2004. 4. King, C., “Cameco Proceeds With Cigar Lake Mine Construction,” Dow Jones Newswires, retrieved at http://online.wsj.com/article/0,,BT_CO_20041221_005192,00.html on December 21, 2004.8. BiographiesJOSEPH C. HARTMAN is an Associate Professor of
online programs), without manymore in sight. This paper looks at the growth and development of the Bachelor’s degreeprograms in software engineering in the United States, possible causes for the paucity of newprograms, and what this might mean for the future. Included is a survey of software engineeringeducators in programs which do not currently have a Bachelor’s degree program in softwareengineering, as well as comparisons with other computing fields when they were in similarstages of development.1. Introduction The U.S. Bureau of Labor Statistics (BLS) lists “software engineer” as one of the fastestgrowing job categories in the United States, over three times as fast as job growth in generalexpected for the period 2002-2012. In fact
Education Annual Conference & Exposition Copyright @2005, American Society for Engineering Education Table 4 Course Coverage of EE Program Outcomes 3 Course Outcomes a b c d e f g h i j k l m n o MATH 1060 Calculus I x ENGL 1010, 1020 Fresh. English I, II x ENGR 100L Intro. To Engr. I x x x x x x x x x x CHEM 151 Gen. Chem. Eng x CHEM 151L Gen. Chem. Lab x x x x ENGR 115L Engr. Graphic Des
To Pop or Not to Pop: Elementary Teachers Explore Engineering Design with Pop-up Books Susan Etheredge, Catherine Lewis, Glenn W. Ellis Smith College, Northampton, Massachusetts Thomas Gralinski Amherst Public Schools, Amherst, MassachusettsAbstract: What is engineering? What do engineers do? What is the engineering design process?What is the relationship between engineering and the liberal arts? Why should we teachengineering in the elementary school classroom? What should engineering education look likein the elementary school curriculum?This paper describes how a group of elementary school teachers
) 3. Knowledge of rigid-body kinematics and its application in mechanical analysis (a1, f, h, k) 4. Knowledge of rigid-body kinetics and its application in mechanical analysis (a1, f, h, k) 5. Knowledge and skills of using engineering computer software for dynamic analysis (a1, d, f, h, k) 6. Knowledge of using computer-aided geometric modeling for dynamic analysis of mechanical systems (a1, b, d, k) ----------------------Assessment tool matrix of the learning outcomes Tools were defined for assessment of each course learning outcome listed in the above.Table 1 below is a matrix of the assessment tools versus the learning outcomes used for the fallsemester of 2003.Table 1
eligible for participation inthe program (Groups #1, #2, and #3). It is interesting to see that roughly 58% of the students inthis group passed the course, yet at the same time 23% were placed on Academic Warning.Group #5 (N=45): Students in Group #5 were not eligible for the pilot study because they allreceived grades of 76 or higher on the first exam in Calculus-I. Collecting data on 45 suchengineering students from two randomly selected course sections formed this group. This groupprovides a basis of comparison for the observations from Group #4. Of the 45 students in Group#5 the average score in the first exam was 86.99, and on average students received a grade of3.22 (B to B+) in the course. In addition, 97.78% of these 45 students (44/45
over the traditional bench top instruments (seeTables 4 and 5. Based on this evaluation, the Department replaced the conventional bench topinstruments in the EECE 213 circuits lab with computer workstations. All six stations in the labwere equipped with a Gateway Pentium II PC with the NI VB Version 2.1.1.1 software and theassociated hardware. Page 10.424.8 “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education"B. Web-based lab courseware and learning resourcesIn the traditional lab method, apart from the
learning environments in the teaching of networking curricula. These exercises will be used as supplements to teaching with hands-on live data and will be sufficiently generic that students will be able to use them under many operating platforms. When used in conjunction with the accompanying vignettes and lecture notes in the website, they will enhance experiential learning, and do so comprehensively. To make this effort challenging and theory-based, learning objectives were generated for each exercise based on Bloom’s Taxonomy and ABET 2000 a-k Criteria. Specifically, the following have been addressed: (a) define the criteria with which to measure outcome achievements, (b) design assessment tools, (c) apply these tools to the
program organized by ISU, followingthe vision of its founders Peter H. Diamandis, Todd B. Hawley, and Robert D. Richards who, atthe time when they were still students at the Massachusetts Institute of Technology, realized theimportance of shared knowledge, philosophy, and practices among the future leaders of the spaceenterprises. The location of the SSP program is chosen each year in different countries ondifferent continents. The SSP program consists of interdisciplinary coursework followed by ateamwork project related to a complex space related issue, and ends with the publication of acomprehensive Report addressing various aspects of the selected issue.The most recent Summer Session Program was held in Adelaide, Australia, from 27 June to
engineers and technicians in the field. They get to appreciate thecurrency of topics discussed in class. They also get to learn the requirements for the job market,and the requirements for specific companies. Such contacts become invaluable after graduationwhen the new graduates are seeking employment.References[1] Commonwealth Telephone Company, C-TEC; Educator in the Workplace B (1998).[2] David, W. (2002). The National Guard's STARBASE program links kids with the real world of aviation and aerospace. http://scribe.iat.unc.edu/index.nsf/doc/starbase0406.[3] David, W. (2000). UNC-Chapel Hill's Mobile Science and Technology Laboratory takes to the highways this fall on a mission to bring science to the people. http
The National Center for Engineering and Technology Education Christine E. Hailey, Kurt Becker, Maurice Thomas, Tom Erekson Utah State University (USU)/USU/USU/Brigham Young UniversityAbstractThe National Center for Engineering and Technology Education (NCETE) is a recently fundedNational Science Foundation Center for Learning and Teaching. This paper provides a broadoverview of NCETE activities that will span the five years of the program, consistent with thegoals of ASEE’s Emerging Trends in Engineering Education session. The long-term goal ofNCETE is to understand how to infuse engineering design into technology education in grades 9-12. The paper describes the relationship between engineering and
, water managers, and general publics were shown in thevideo. The video illustrated the complexity of a real-world problem relating to water supply anddemonstrated the connection between engineering principles and their applications. The twodiscussion questions proposed to the class were (a) “what are the major sources that contaminatewater supply sources, by human activities vs. natural reasons?”, (b) “what can we do to protectwater supply sources?”. After the video was shown, students were divided into groups of three toconduct approximately 15 minutes discussions and to develop answers to each question. Studentswere then asked to report their answers to the whole class. The instructor moderated thediscussion session to ensure that each student