Paper ID #34387Copyright: Infringement, Remedies, and Defenses in a Pandemic Environ-mentDr. Salvatore Marsico, Pennsylvania State University, Wilkes-Barre Campus Dr. Marsico is an Associate Professor of Engineering and Legal Issues in Engineering in the University College of Penn State University. American c Society for Engineering Education, 2021 Copyright: Infringement, Remedies, and Defenses in a Pandemic EnvironmentAbstractThe abrupt shift of universities to an online environment has heightened the awareness andimpact of the copyright law. The
2006-1046: PUBLIC POLICY AND ENGINEERING DESIGN: A CREATIVEPARTNERSHIP IN ENGINEERING EDUCATIONAlison Tramba, University of Virginia Alison Tramba is an undergraduate student in the School of Engineering and Applied Science at the University of Virginia. She plans to graduate in May, 2007, with a double major in Systems Engineering and American Studies. An internship in Washington, DC, research at UVA, and participation in interdisciplinary projects with the School of Architecture have motivated her to pursue a career in policy regarding housing and infrastructure provisions. Alison is also a two-term representative to the university's Honor Committee.Edmund Russell, University of Virginia
Paper ID #12086”And Now for Something Completely Different” – A Faculty Sabbatical inPublic PolicyDr. Judy L. Cezeaux, Western New England University Judy Cezeaux is Professor and Chair of Biomedical Engineering at Western New England University in Springfield, Massachusetts. She received her B.S. degree in mechanical engineering from Carnegie Mellon University and her Ph.D. degree in biomedical engineering from Rensselaer Polytechnic Institute. Prior to her appointment at Western New England University, she was a Senior Staff Fellow at the National Institute for Occupational Safety and Health in Morgantown, West Virginia
Paper ID #6462Implementation of a Risk Management Program to Address Public Policy Is-sues in Mega ProjectsProf. Andrew J Bates, Polytechnic Institute of New York University Professor Andrew Bates is an experienced senior construction manager with a proven ability to plan, di- rect and complete construction and engineering projects safely, on time and within budget. His ability to communicate, motivate people and devise successful action plans in both small and large organizations has allowed him to thrive in high stress, fast-paced work environments requiring multi-tasking and im- mediate decision making skills. Since
Paper ID #16045Improving Engineers’ Ability by Strengthening University-Industry Collabo-ration: A Plan for Education and Training Outstanding Engineers (PETOE)in ChinaDr. Huiming Fan, East China University of Science and Technology I am a lecturer from Institute of Higher Education, East China University of Science and Technology. I got Ph.D. degree from Zhejiang University in 2014. I was also a visiting scholar at the area of University- Industry Collaboration at North Carolina State University from 2012.12-2013.7. My research focuses on engineering education, university-industry collaboration, entrepreneurial university
identified - non-competitive markets, public goods, externalities, information asymmetries, and principal-agentproblems. In this section we review each of these five sources in turn, proceeding with a standarddefinition, examples, and implications for research and policy in engineering education. Some ofthe examples provided are more concrete than others. For each type of failure, we invite thereader to reflect on their own involvement in engineering education and consider examples fromtheir own experiences in engineering education in order to (a) to personalize the analysis and (b)help demonstrate the potential applicability of this approach.Public goods We first take up the notion of public goods, because prior to marketization, education
student will need it and (b)the student will have a high return on investment (ROI) as a human capital asset. Suchemployer buy-in spreads costs and builds up positive cash flow early in the program.Reinsurance will be provided by a government entity (e.g. NTMA in Ireland) in order to keepcosts low. In addition, as stated above, the endowment is designed as a tontine (an early formof insurance in which dividends increased as investors died) [35] reverting to the state(insurance company) upon death. If an individual did not take advantage of their endowmentto continue their education they would have two options: 1) pay a very large fee to make itinheritable and thus provide better education for their children or grandchildren, or 2) usetheir
Seminar Seriesb c d Figure 1. Flyer and brochures from the first four years of the Seminar Series. (a) 2012- 2013 was a simple word document flyer, (b) 2013-2014 had an image of DNA generated by a faculty member and student, (c) 2014-2015 was a purchased image, (d) 2015-2016 was illustrated by an art professor at the University who will oversee future covers created by students and faculty.supportive climate, enhancing promotion and leadership, and increasing retention of womenfaculty in STEM. Support for a seminar series that would increase faculties’ networkingopportunities and allow a young female to take on a leadership role in the organization of theseries was in
bellow and these were gathered through thedocuments and trainings provided by FCC, ITU, and Asia Pacific Telecommunity (APT). Alsoan informal survey of the related courses in other institutes was done to exclude those topics thatare currently covered in other courses. The suggested study of radio spectrum policy is best donein four major topics of: a) Introduction to radio regulation b) Licensing and assignment c) Spectrum management and interference d) Technical data and EMC analysis Page 24.712.4IV. Frequency Licensing and assignmentRadio communications have become an increasingly vital part of the
, b. integrate knowledge with other fields and within subfields of engineering education research, and c. apply new knowledge to the solution of practical problems in engineering education both directly and by encouraging broad dissemination and use of the knowledge base 3. Develop mechanisms for identifying and pursuing research questions relevant to any and all elements of systems of engineering education. 4. Develop research tools and instruments that will aid in the development of a continually replenished body of knowledgeIt is probably to be expected that these categories correspond to the People, Ideas, and Toolsconstruct previously used by NSF in
between facts and concepts. To earna B a student had to demonstrate a substantial grasp of the facts and clearly express theirunderstanding. If a student grasped many of the relevant facts and showed a generalunderstanding of the facts they were given a C. To earn a D a student would only grasp some ofthe facts and demonstrate a partial understanding of the concepts and relationships. If a studentonly grasped a few of the concepts and demonstrated little understanding of the facts, they weregiven a grade of F. There was a great deal of subjectivity in the grading and feedback wasprovided to help the students present stronger arguments. The political science students wereaccustomed this type of grading but the engineering students took a little
viaformation, nurturance and sustaining an important targeted school-university urban educationalpartnership. Our university has partnered with large urban school districts to plan, deliver andsustain a targeted inservice teacher professional development and a middle and high schoolSTEM curriculum intervention. The partnership goals are to assist inservice middle and highschool science teachers in: (1) designing and implementing integrated science and engineeringcurricula and (2) development of instructional methods and strategies that enable teachers toeffectively (a) teach challenging content and research skills in middle and high school asdemanded by state/national science standards; (b) generate knowledge and transform practice inhigh school STEM
, which held the authority to grant the R-101’s certificate ofairworthiness. Apparently appalled at the condition of the airship, McWade wrotedirectly to the Air Ministry Office in London, pointing out the seriousness of thesituation. However, his supervisor did not pass the memo to the secretary of the AirMinistry, but rather sent it to the director of development at the Royal Airship Works,one R. B. Gilmore. Thus, the first formal sounding of alarm was sent to the partycharged with keeping the R-101 on schedule. In response, Gilmore returned a soothingmemo claiming the problems well in hand, and McWade’s warning never reached the AirMinistry. McWade’s supervisor counseled that he should pay attention only to theexecution of the plans then in
to gain an understanding of public policy as it related to their discipline. Wefound that many of these students did value such knowledge. We also found that the more seniorstudents and the students with work experience overwhelmingly valued such material.As a follow-up to this research, we surveyed approximately one hundred engineers in a variety ofhiring positions in industry to determine their view on the inclusion of public policy in anengineering curriculum. Among the questions included in the survey, we asked, “Do you believethat engineering students should be exposed to public policy issues as part of their education?”We also addressed a number of other issues, including: 1) How do these engineers define publicpolicy? 2) Should the
university andcomprehensive university respectively. The first configuration in table 4 shows (a)more academic scientists, (b) fewer graduate students, (c) fewer funding projects,and (d) fewer academic papers with higher consistency. This finding explains whyengineering advantage university policies pay more attention to the introductionand cultivation of high-level scientific research talents. The second configuration intable 4 shows that (a) fewer academic scientists, (b) more graduate students, (c)fewer academic papers and (d) fewer library resources with high consistency, whichshows that engineering advantage university attaches great importance toengineering innovation students. The third configuration in table 4 shows (a) feweracademic
Engineering, University of Brighton, UK. He received his BS from Kabul University and his M.Sc. and Ph.D. degrees in Electrical Engineering from the Universities of Salford and Brighton respectively. He has been teaching at University of Brighton since 1989. He has conducted a survey for the Afghan government and UNDP about the current state of Technical, Vocational Education (TVE) and Engineering Institutions in Afghanistan in 2004. In addition, he has been actively involved to help higher education in Afghanistan, especially Kabul University since 2005. He has published several papers and reports on improving higher education in Afghanistan. Since December 2006, Dr. B. Baha has been helping
. Butz, Gabrielle A. Bloom, Mihal E. Gross, Terrence K. Kelly, Aaron Kofner, and Helga E. Rippen, ―Is There a Shortage of Scientists and Engineers? How Would We Know?‖ Issue Paper, Rand Corporation (2003) (available at http://www.rand.org/pubs/issue_papers/2005/IP241.pdf ).5 Id.6 Richard B. Freeman, ―A Cobweb Model of the Supply and Starting Salary of New Engineers,‖ Industrial and Labor Relations Review 29 (January 1976), pp. 236-246.7 George J. Borjas, Labor Economics (3rd ed.), McGraw-Hill Irwin, 2005, pp. 189 – 192.8 Kenneth J. Arrow and William M. Capron, ―Dynamic Shortages and Price Rises: The Engineer-Scientist Case.‖ The Quarterly Journal of Economics (73) 2: pp. 292-308.9 Richard B. Freeman
-preservation.Prior ResearchBased on (a) the idea of social construction of gender roles rather than these roles beingimmutable and nature, and (b) the idea that heavy television viewers create a worldview based onwhat they observe on television (cultivation theory), Wasburn [7] hypothesized that individualswho see women engineers or technicians will view careers in STEM as viable options forwomen, while non-viewers will not see these careers as appropriate for women. In a telephonesurvey, respondents were asked if they had seen women in several professions, whether theythought men would prefer a spouse who was either an elementary school teacher or in one ofthose professions, and whether they agreed that women could be in certain professions. The
. While facultyrecruitment has shifted to seek out applications from women, there are still hurdles that areunique to women and other underrepresented groups in academic settings. SWE is a uniqueprofessional society that can provide a community that transcends the organizational boundariesby encompassing technical, service, and professional development areas for women in academiathat is inclusive, collaborative, and supportive as well as connected to industry, government andacademia on multiple levels.References1. Hall, R. M. & Sandler, B. R. Academic Mentoring for Women Students and Faculty: A New Look at an Old Way to Get Ahead. (1983).2. Fu, Katherine; Reid, Tahira N.; Terpenny, Janis P.; Thurston, Deborah; Vance, Judy M.; Finger
disagree; 5: strongly agree) and two open-endedquestions. The survey questions were designed to examine the impact of the curricular interventiondescribed herein on enhancing the students’ a) level of understanding of the course content and itsreal-world applications, b) motivation to learn about the implications of contemporary policydecisions from science, engineering, economic, and environmental perspectives, and c)recognition of the importance of cross-disciplinary interactions in solving real-world problems.Results and DiscussionThe multidisciplinary curricular intervention impacted 134 students in the computer applicationsclass (CE 251) and 116 students in the microbiology class (MCRO 224) over the period of twoacademic quarters. These
Engineering Programs, 2011 - 2012. (2011).at 4. Tull, K. & Jones, S. A sophomore-level Engineering and Public Policy course required for B.A. Engineering majors at Lafayette College. 13 (2006).at 5. Myers, T. D. Learning outcomes for an Engineering and Technology Public Policy curriculum. (2008).at 6. Grose, T. K. Public Policy for the Tech-Minded. ASEE Prism 18, 47 – 48 (2009).7. Myers, T. & Stuart, B. Teaching engineering and technology public policy while fulfilling multiple ABET and university requirements. 13 (2010).at 8. Harter, K. & Libros, R. Aset 101: Science, Technology And Public Policy: Increasing Technological Literacy Among Community College Students. (2010).at 9. Sicker
essential concepts, and an associated example problem, foreach of the approximately 10-12 fundamental courses. Then a total of 40-60 problems wouldillustrate the fundamental understandings required for mastery of engineering at a basicundergraduate level. Then some of us would do as Silman did and interview a diverse cohort ofour students as they work through each problem. A dynamic catalog of these extractedmisconceptions could allow the design of intelligent tests that pinpoint individuals’ weaknessesand allow the professors to tailor the lectures, discussion, examples, and homeworks to eradicatethe misconceptions. The goal would be true mastery of these fundamentals, not a “60%” whichis then curved to equate to a meaningless “B.”Perhaps this
, and other in-class activities. Be prepared forvalue-added participation by reading the assigned material, developing notes, and speakingthoughtfully and candidly about the assigned reading. Be prepared to identify, compare, andcontrast opposing perspectives. Page 15.1172.10Grading Scale: A = 93-100% A- = 90-92.9% ExemplaryB+ = 87-89.9% B = 83-86.9% B- = 80-82.9% GoodC+ = 77-79.9% C = 73-76.9% C- = 70-72.9% SatisfactoryD+ = 67-69.9% D = 63-66.9
recognize that mostpeople do not understand what tenure is, how it is earned, how it can be lost, and why it isimportant. Carrying this one step further, many people outside of academia do not even reallyknow the full array of activities that are involved with faculty jobs. Engineering faculty can playan important role in educating the public about tenure and what faculty do because (a) manypeople are impressed by someone being an engineer because it isn’t something that they thinkthey have the skills to do, and (b) politicians and business leaders are very much interested inhaving more STEM graduates and therefore will view engineering as a “worthwhile” subject tostudy in college. (This is not to say that non-STEM disciplines are not valuable to
other running events.The long-term recommendations were to; 1) Integrate Walk Arlingtonwebsite into website design that also has links to other points of interest inArlington, 2) Integrate a calorie counter into website design to calculate Figure 3: Kiosk in central locationscalories expended during walking journey between points of interest, and & near hotels for3) Train hotel concierges to provide guests information on walking visitor usealternatives to points of interest. b. Taxi, Shuttle, and Car RentalIn this area there are some appealing green options. There are two Arlington taxi companies thatprovide only hybrid cabs
for the 24 programs is in the efficient set. Table 2. Data from the 24 efficient colleges identified from the DEA analysis. Total Total Total Total Efficiency School Total Res. Fac. Bachelor's Master's Doctoral Score A 18.33 62.67 10.33 4.67 $4,611,811 100 B 428.00 1674.33 992.33 284.33 $207,424,291 100 C 328.33 1359.33 472.67 214.00 $202,752,123 100 D 58.00 148.00 346.00 23.00 $5,635,967 100 E 127.00
repair” that, once it was made, restored your power delivery? 5. What equipment in your area presented the greatest challenge to repair and restore? 6. Of the electric infrastructure damage caused by the hurricane, what was primarily due to a. high winds? b. flooding? 7. To what extent did solar panels withstand the hurricane a. when they were located on the ground as “utility scale”? b. when they were located on roofs? 8. To what extent did wind turbines withstand the hurricane?Changes to infrastructure that could avoid, mitigate, and/or speed restoration time: 1. What kinds of changes to generation, delivery and end-use of electric energy do you suggest as beneficial to avoid
mission activities span a wide spectrum. They can be grouped into three distinct sets ofactivities: (a) Technology Transfer & Innovation activities; (b) Continuing Education activities,and (c) Social Engagement activities [35]. The activities within the grouping of TechnologyTransfer & Innovation are those most directly associated with economic development andinclude such elements as: intellectual property licensing, technology parks, support for spin-outcompanies, support for external consultancy, technology problem solving, etc. Generally, thirdmission technology transfer and innovation activities are driven by economic objectives.Economic value and value for money are becoming more and more important for universities.Again, while
4.3 / 4.3 3.7 / 3.7 0.6 New Skills Indicates < |0.3| variation in perceived Indicates > 0.3 increase in perceived value over the 1993-2002 period value over the 1993-2002 periodStudents in entrepreneurship courses and the E-SHIP Minor develop these six skills across timein team projects, developing new products/ventures to meet market needs, and developingcomplete business plans as a team. In addition, the core courses in the E-SHIP Minor have aproblem-based learning foundation, incorporating activities and tasks to target these areas of skilldeficiency. This is one program where we can do studies of learning these six skills areas.Table B: Perception of the
Paper ID #6180Engineering Education in the United States, Quo Vadis?Dr. Mickey R. Wilhelm P.E., University of Louisville Dr. Mickey R. Wilhelm is Dean Emeritus and Professor of Industrial Engineering at the J. B. Speed School of Engineering, University of Louisville in Louisville, KY. He was Dean of the Speed School from 2003-2011, and has been a faculty member at U of L for 37 years. He received the BSE in Electrical Engineering, and the MSE and Ph.D. degrees in Industrial and Systems Engineering from the University of Alabama in Huntsville. He is a Fellow of both the Institute of Industrial Engineers and the World