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Darwin

Course: J 198, Fall 2008
School: Lehigh
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the dot-com world BY GREGORY C. FARRINGTON AND ROLAND K. YOSHIDA Photography by Len Rizzi FAST DARWIN educational competition in COMPUTERS AND COMMUNICATIONS HAVE TRANSFORMED global business and are now reshaping the world of higher education. New consortia for the Web delivery of educational courses are announced almost daily, and online courses are proliferating. Innovation and competition are...

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the dot-com world BY GREGORY C. FARRINGTON AND ROLAND K. YOSHIDA Photography by Len Rizzi FAST DARWIN educational competition in COMPUTERS AND COMMUNICATIONS HAVE TRANSFORMED global business and are now reshaping the world of higher education. New consortia for the Web delivery of educational courses are announced almost daily, and online courses are proliferating. Innovation and competition are coming to the historically unchanging world of colleges and universities. Alarmed by the speed at which these ventures are developing, and with some degree of self-interest in mind, many U.S. educators argue that online courses are poor substitutes for the richness of residential education. Some assertperhaps even hopethat online courses, like many dot-com businesses, will soon vaporize as more shimmer than substance. Gregory C. Farrington is President (e-mail: <gcf2@lehigh.edu>) and Roland K. Yoshida is Provost (e-mail: <rky2@lehigh.edu>) of Lehigh University. 12 EDUCAUSE r eview November/December 2000 GOES TO COLLEGE Even though a shakeout period for e-business is under way, it is clear that the structure of business has been radically altered and that business as usual will never be usual again. Will change be as permanent in higher education? Yes. All signs indicate that we are on a path to creating a new education analogous to the new economy. The reasons are obvious. Education is simply too important and our existing methods of delivering it are too expensive, timeconsuming, and constrained by established practice not to invite competition. And the new communications and computer technologies make competition possibleactually, inevitable. What is our vision of the new education? Is it one of techno-dazzle for its own sake? Not at all. Computers and the Internet are simply tools, just as lectures, recitations, and homework are tools. We know how to teach with the traditional tools. The challenge now is to discover how to use the new tools to improve what we already do well and to make education more effective, more efficient, less expensive, and more widely accessible. The goal is not to replace todays educational methods but to enhance them. New Technology, New Competition For centuries, higher education has been rooted in secure notions of how faculty should teach and students should learn. Professors have been the holders and purveyors of knowledge. Students have been required to visit professors and attend lectures or seminars or recitations or laboratories at set times. Colleges and universities have not exactly been hotbeds of educational innovation. To be sure, colleges and universities have long competed on the basis of faculty quality, brand-name recognition, November/December 2000 EDUCAUSE r eview 13 price, and programs. But there has been almost no competitive market based on the methods of teaching and learning. Virtually all colleges and universities, the old and venerable and those established just yesterday, teach the same way. Only a small fraction of most institutional budgets or faculty time is invested in true innovation in educational methods. Now the climate is ripe for innovation: costs are high enough to drive it, and new tools make it possible. We have the technological ability to provide learning environments anywhere and anytime. Unconstrained by bricks and mortar, new competitors can enter the worldwide educational marketplace, and established institutions can compete in new ways. The driving forces, as in the rest of the economy, are income and competitive edge. One of the most widely discussed and controversial new methods of teaching is distance education via the Internet. Though many U.S. educators consider Internet-based education to be a new concept, distance education programs are not really new at all. Colleges and universities in countries such as Australia and Great Britain, and a number of U.S. institutions as well, have run successful programs of distance education for decades. The Internet just makes doing so easier and potentially far more effective. Of course, just because income beckons and innovation is technically possible doesnt mean that new methods will be accepted enthusiastically, will be adopted quickly, or will be implemented well. What is inevitable is a great deal of experimentation. Innovation is coming to higher education, and it is gaining speed at a pace that most faculty curriculum committees find dizzying. The challenge, as in all such change, is to separate the real progress from the razzle-dazzle. Innovation is coming to higher education, and it is gaining speed at a pace that most faculty curriculum committees find dizzying. The challenge, as in all such change, is to separate the real progress from the razzle-dazzle. The Virtual Football Team? Will residential higher education be replaced by Web sites? We certainly hope not. The U.S. residential undergraduate experience is a marvelous invention, a relatively safe halfway house between home and independence. Living away 14 EDUCAUSE r eview November/December 2000 from home, students grow up, learn to work with others, find out about the world from their faculty and peers, are exposed to intellectual, cultural, and human diversity, are challenged to explore beyond their familiar and comfortable worlds, and yes, even attend classes and earn degrees. They seek out peers, professors, and staff to talk, ruminate, and work through what at times seem like (and may be) life crises. In most cases, they bloom, both intellectually and socially. Their parents marvel at them, and they come to marvel at their parents. In short, the process works, and it works very well indeed. Its not the only way to bridge home and career, but its a very good way. The United States is fortunate to have a vast and varied collection of residential brick-and-mortar colleges and universities covering a wide range of qualit y a n d p r ic e a n d p o s s e s s i n g t h e capacity to meet the demands of its internal market for undergraduate education. The same cannot be said of all countries. Chinas universities can meet only a fraction of its future demand for higher education. Australia is a large country with a low population density, making residential education more difficult. It has developed strong programs of distance education, and its successes will surely be emulated in China, as China attempts to meet its growing demands for education, and in other countries as well. Given that the worldwide demand for undergraduate education will only grow and that the Internet enables new and more convenient approaches to education, how will these developments affect traditional U.S. residential undergraduate institutions? Several possibilities come to mind; some increase income, others improve on traditional residential education, and still others are more radical transformations that may be able to reduce the cost of delivering education and its price. Increasing Income: U.S. Colleges and Universities Go Global The Internet makes it possible for faculty on one side of the world to teach students on the other and everywhere in between as well. Some traditional U.S. colleges and universities will surely choose to exploit the power of the Internet and enter the national and international education market by offering undergraduate courses online. In this way, a Chinese student in Shanghai will be able to study at hypothetical Maple College in Michigan. Maple College may choose to support its distance education program with its own faculty or with outsourced tutors who are certified by Maple but who might live in New Delhi. More likely, Maple will participate in a consortium of U.S. and international institutions that collectively take on the marketplace. The rewards for dear old Maple include instant international visibility and tuition income. Given the economic dominance of the U.S. economy and the brand-name power of U.S. college and university de grees, programs following this economic and educational model seem inevitable. Enriching the Traditional Residential Curriculum Many other institutions will choose to use the new technologies to become better residential undergraduate institutionsto offer more varied and challenging programs, foster livelier intell e c t u a l i n te ra c t i o n , a n d d e v e l o p stronger residential communities. These institutions recognize that the central power of residential education is the power of the learning community. Their goal will be to use Internet tools to enhance traditional education, not replace it. Some methods of doing so include the following: Computers for Information, People for Interaction. One potentially powerful use of technology is helping students gain information and develop skills so that real faculty can focus on interacting with students and challenging them individually. For example, the introductory accounting course at Lehigh University divides its students into nine sections, each with forty students. Each section has traditionally been taught by one faculty member who prepares and delivers his or her own lectures three times a week. Doing so requires much faculty time and energy spent in repetitively presenting basic information. The accounting faculty are now redesigning this course and developing an integrated multimedia program that will teach fundamental accounting techniques and replace one traditional class meeting per week. The program will include high-quality streaming videos, study guides, and online quizzes, all accessible through the Web. The faculty have decided to use the multimedia module to teach fundamentals so that they can focus on the more intellectually engaging challenge of discussing real applications in live, face-to-face interchanges among faculty and students. This same approach might be taken in other courses that involve mastering fundamental concepts and/or developing skills that then must be integrated into a broader or more topical context. If students can learn the fundamentals using sophisticated computer-based modules, faculty can be liberated to challenge students to creatively apply what they have learned. Its all about using technology for what it can do best so that people can be freed to do what they do best. Rich Offerings for Small Institutions. The Internet makes it possible for small institutions to provide specialized course offerings despite their size. Consider classics. Although the number of colleges with large classics departments is relatively small, even modest programs can become more comprehensive by using communications technology. A good example is the emerging multiinstitutional classics department being developed among the fifteen institutions in the Associated Colleges of the South. Most of these colleges have at least a few classics faculty but usually too few to offer a large variety of courses in Greek and Latin culture and literature. By banding together through the Internet and telecommunications, the faculties are creating a virtual classics department linking faculty, course offerings, and students across their institutions. The goal is not to reduce the cost of education but to increase its richness, to make each institution more competitive for the finest new faculty, and ultimately to increase the number of students who study courses in the classics. This consortium model can be applied in many other and areas in larger institutions as well, particularly in topics in which each institution has too little expertise to offer a full program or in which critical teaching expertise can best be found outside of academia. Other examples include biotechnology, e-commerce, genetic engineering, and many other fast-changing fields in which any one institution may find it very difficult to offer the highest-quality programs. Traditionally, colleges and universities have made relatively little use of shared teaching. The goal has been to gather, on the same campus, all the faculty members needed to teach a program. In the future, it seems inevitable that colleges and universities will increasingly be knit together by webs of teaching and research consortia that magnify the power of smaller groups of faculty on individual campuses and make it possible to maintain up-to-date curricula in fields that are changing rapidly. The goal will not be to concentrate all the expertise on a single campus but to have enough high-quality expertise to form the best alliances. Reducing Costs: More Radical Changes Whereas distance education may provide new income opportunities for colleges and universities, particularly at the graduate level, the options for significantly reducing the cost of education at the undergraduate level will be more limited unless radical changes are made in the structure of the undergraduate experience. Fully Web-based undergraduate programs would seem to be less costly than residential education, but whether they really are depends largely on the level of personal faculty-student interaction needed in any particular online program. Online education that is designed to have minimal engagement between student and faculty will certainly be less expensive than highly interactive programs. Which categories of student can learn effectively using online courses is another question. These November/December 2000 EDUCAUSE r eview 15 the new technologies are being used to enhance educationto make it better, richer, and more diversenot to make it less expensive. Soaring information technology and energy budgets attest to this fact. Many who felt that technology would quickly make education more efficient and would reduce costs wonder where all the savings have gone. The answer is that those savings were never there, nor are they ever likely to be. Real savings require radical change, not simply variations on traditional methods. What are some more radical changes that the Internet might make possible? Several come to mind: Acceleration of the First Year. One possible use of the Internet is to blur the boundary between high school and college. The Clipper Project at Lehigh University aims to create online versions of first-year core courses, specifically in chemistry, mathematics, economics, English composition and literature, and introductory engineering, and to deliver them to prospective first-year students while the students are still in high school. Students anywhere will have the opportunity to get a head start on their first year of college and to complete beginning courses early. The time liberated in the first year can be used to shorten the degree program or to compress more education into the standard four years. This program will debut in experimental form in January 2001. Interactive Computer Teaching Modules. In most colleges and universities, a great deal of faculty time is spent teaching fundamental courses in which students learn the particular language of a field or develop specific skills. It is possible that some fraction of such courses could be more efficiently and even more effectively taught by sophisticated computerbased learning tools that make it possible for the same number of faculty to teach a larger number of students. Likewise, it seems certain that a lively publishing industry will develop around the creation of sophisticated learning modules that will increasingly replace the rep etitive lectures of courses such as Chemistry 101, so that students can learn the concepts on their Web or no Web, learning must be structured to provide the discipline, guidance, and motivation needed s o t h a t a s t u d e n t s potential can be realized. issues, along with their related economics, are important topics for research in online education. Web instruction may be quite attractive in societies in which the educational infrastructure is less developed than in the United States, but it is hard to believe that a fully Web-based experience can ever equal the quality of live interaction among students and faculty. The largest expense in U.S. residential undergraduate education is in the salaries of faculty and staff. The only way the new technologies can dramatically reduce the cost of education is to enable the same number of faculty and staff to teach more students. Before using the new technologies to do so, however, institutions must ensure that educational quality will not be unacceptably compromised. The reality is that on most campuses, laptops and then gather in class for interactive discussion rather than passive note-taking. Other natural applications are in biology, physics, mathematics, beginning engineering, business fundamentals, basic economics, and foreign languages, to name a few. Andersen Consulting took on this challenge in MBA education, which is expensive both in terms of direct cost and in terms of time away from work. Andersen was asked to determine if a substantial fraction of the MBA curriculum could be delivered through smart computer modules that could be studied by students anywhere and anytime. Andersen developed a series of such teaching modules in topics such as financial engineering, marketing, leadership, and supply chain management, and it demonstrated that students who learned the fundamentals in this way performed every bit as well as students who learned them in a traditional classroom. Principals from this project are now working to launch a new company to extend this concept to other areas of education, including fundamentals of the first year of undergraduate education. What is particularly interesting about the Andersen MBA experiment is who is driving the educational change. Frequently, employers, not individuals, pay for top MBA education. A large multinational firm, not a business school, commissioned Andersens experiment, and its goal was to make its employee-education programs more efficient and less expensive. Business schools might object to using the new learning modules to shorten their programs and reduce their income, but ultimately the control is with the organization that pays the bills, not with the academics. Again, the issue of how well students of various ages, abilities, and levels of motivation can actually learn while using smart Web-based instructional packages is a prime topic for...

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Lehigh - JTT - 211
John Thompson 39 Mapleseed Drive Dallas, PA 18612 Phone: 570-406-1129 E-mail jtt211@lehigh.edu Dallas Senior High School Alum Lehigh University Class of 2011 High School GPA _ Weighted: 2.697 STANDARDIZED TESTS_ COMBINED SAT: 2200 Reading: 720, Mat
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Freshman Year Fall Semester Engl 1 Math 21 4 Phys 11 Phys 12 IBE 10 Engr 1 Total Credits Sophomore Year Fall Semester ECE 33 Phys 21 Phys 22 Math 23 ECE 81 IBE 150 Total Credits Junior Year Fall Semester Acct 152 3 Eco 129 3 Comm 130/160 ECE 121 2 EC
Lehigh - NMK - 212
Freshman YearFall semester Math 22 Physics 11 Physics 12 Engr 01 Engl 011 IBE 010 Total Fall Semester Math 231 Physics 21 Physics 22 Mech 3 Eco 129 IBE 150 Total Fall Semester ME 10 Mech 102 Fin 125 Law 201 ME 231 IBE 250 Total Fall Semester ME 207
Lehigh - MKH - 310
Michael K. Hodsdonmkh310@lehigh.edu (814) 331-9014 School: Box D192, Lehigh University, Bethlehem, PA 18015 Home: 122 Country Lane, Kersey, PA 15846 OBJECTIVE: EDUCATION: Gain experience as an Electrical Engineer in research and industry LEHIGH UNI
Lehigh - MKH - 310
My Curriculum Plan:My Goals for my time spent here at Lehigh are as follows: 1. To get a dual degree in IBE EE and Electrical Engineering 2. I hope to study a semester abroad in Germany 3. I am a member of ASA, Team 2010 programming chair, and look
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William P. Mistretta IIISchool: Box F465, Lehigh University, 39 University Drive, Bethlehem, PA, 18015 wpm211@lehigh.edu Home: 4 Whispering Pines Court, Flemington, NJ, 08822 (908)-237-2435 (C) (908)-268-9300Education:Lehigh University, Bethlehe
Lehigh - KAC - 412
Kaitlin A Chester_School: Box B813, Lehigh University, Bethlehem, PA 18015 (609) 933-8179 kac412@lehigh.edu Home: 30 Claude Rd Yardville NJ 086320OBJECTIVE: To obtain an internship in either the field of business or engineering that will develop
Lehigh - ERF - 212
Evan Flach erf212@lehigh.eduCampus: Lehigh University, Box C453 39 University Drive Bethlehem PA, 18015 Permanent: 3 Surrey Court Airmont, NY 10952 845-357-3190Objective: An internship in Bioengineering Education: Lehigh UniversityClass of 2012 B
Lehigh - ERF - 212
IncomingCourse Title Composition and Literature Survey Europe Since 1648 US to 1865 Calculus 1 Intro to Chemical Principles Subject ENGL HIST HIST MATH CHM Course ID 001 012 041 021 025 Total Credits Credits 3 4 4 4 4 19Freshman Fall SemesterCour
Lehigh - TIM - 204
Trent Muraoka School: Lehigh University 27 University Drive West Bethlehem, PA 18015 Home: 361 Oomano Pl. Honolulu, HI 96825 Objective: Civil Engineer Eduaction: Lehigh University IBE Major Related Experience: Auto CAD work summer 2000 worked on some
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Business and Engineering Honors Program culum for a Major in Civil Engineering Freshman Year, Fall Semester Credits Course 3 English 1 Description Semester Composition F,S &amp; Literature Freshman Year, Spring Semester Prerequisites Credits Course 3 Eng
Lehigh - RDP - 211
Freshman YearFall Semester Engl 2 Math 75 Chem 21 Chem 22 Engr 1 IBE Freshman Seminar Total Credits Fall Semester Acct 152 Phys 21 Phys 22 Math 22 Eco 129 IBE Sophomore Lab Total Credits Fall Semester Math 231 Mgt 280 Bus Major IE 215 IE 216 Mech 2
Lehigh - RDP - 211
Robert D. Peckmanrdp211@lehigh.eduSchool AddressLehigh University 39 University Drive - Box 202 Bethlehem, PA 18015-3041 (845) 323-7790Home Address23 Rolfe Place Pearl River, NY 10965 (845) 627-3628ObjectiveWhile in college, I would like to
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John F Prior III_School: Box H137, Lehigh University, Bethlehem, PA 18015 (203) 685-5557 jfp212@lehigh.edu Home: 11 Coachman Drive, Branford, CT 06405 (203) 488-7579OBJECTIVE: To obtain an internship in either the field of business or engineeri
Lehigh - PRN - 211
School: 39 University Drive, Box F607 Bethlehem, PA 18015 973-617-7022 Home: 38 Sloping Hill Terrace Wayne, NJ 07470 973-628-8960 prn211@lehigh.eduPaul R. NobileObjectiveTo obtain a summer internship in which I can utilize and build upon
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(718)-344-2132 ral212@lehigh.edu Home: 116 Bay 35 th Street Brooklyn, NY 11214 School: Lehigh University, Box F019 39 University Drive, Bethlehem, PA 18015 OBJECTIVE To obtain a summer internship in the field of Chemical Engineering SKILLS Leadership
Lehigh - RAL - 212
AP Credit Courses CHM 25 Intro to Chemical Principles CHM 31 Chemical Equilibrium in Aqueous Systems MATH 21 Calculus I MATH 22 Calculus II ECO 1 Principles of Economics ECO 99 Economics Elective EES 22 Exploring Earth EES 31 Intro to Organismal Bio
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Preston Samuel McCarter Zornerpsz211@lehigh.edu 760.685.0360 www.lehigh.edu/~psz211 School: Home: OBJECTIVE: Box K219, Lehigh University, Bethlehem, PA 18015 1720 Hygeia Ave, Encinitas, CA 92024 I want to develop my technical skills and to place my
Lehigh - PSZ - 211
Curriculum for an IBE Major in Industrial Engineering &amp; Minor in Economics Preston Samuel McCarter Zorner I am currently participating in the 4 year Leadership Lehigh Program as well as the M.E.N.T.O.R. program. I am participating in RHA as the elect
Lehigh - IJS - 212
Curriculum Plan Freshman Fall English 11 Math 22 Eco 129 Engineering 1 IBE 095 Freshman Spring Spanish 2 Math 23 Physics 21 Physics 22 Eng 5 IBE 096 Sophomore Fall IE 111 CSC 17 Math 205 Spanish 3 IBE 195 Sophomore Spring IE 121 IE
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Paul R. Nobile Curriculum BS in IBE, Industrial Engineering Semester 1 Math 023 Eco 1 Engr 1 Acct 151 IBE Seminar Semester 2 Fin 125 Acct 152 Eco 129 CHE 44 IBE Workshop Semester 3 Eco 146 Math 205 Mat 33 IBE Soph Lab IE 111 Mech 24 4 3 3 1 153 3
Lehigh - BSF - 208
1CURRICULUM VITAE BENJAMIN S. FELZERThe Ecosystems Center, Marine Biological Laboratory 7 MBL Street, Woods Hole, MA 02543 (508) 289-7748 bfelzer@mbl.edu http:/ecosystems.mbl.edu/staff/felzer.html EDUCATION Ph.D., Geological Sciences (Paleoclimatolo
Lehigh - GEB - 0
Please make sure that your abstract fits into one page and follows the format specified on the Abstract Submission web page.Multiple isotope and pollen evidence for natural and human-induced environmental changes at White Lake, New JerseyLong Li1*
Lehigh - GEB - 0
Available online at www.sciencedirect.comGeochimica et Cosmochimica Acta 72 (2008) 43384351 www.elsevier.com/locate/gcaComplex trajectories of aquatic and terrestrial ecosystem shifts caused by multiple human-induced environmental stressesLong L
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Medial Cretaceous Subduction Erosion of Southwestern North America: New Hypothesis for the Formation of the Catalina SchistM. Grove1 G.E. Bebout C.E. Jacobson D.L. Kimbrough R.L. King O.M. LoveraDepartment of Earth &amp; Space Sciences, University of
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Please ensure that your abstract fits into one column on one page and complies with the Instructions to Authors available from the Abstract Submission web page.Sensitivity of Global Carbon Cycling Models to Changing Subduction FluxesGRAY E. BEBOUT
Lehigh - GEB - 0
Please ensure that your abstract fits into one column on one page and complies with the Instructions to Authors available from the Abstract Submission web page.Geochemistry of Devolatilization (and Exhumation) in W. Alps HP and UHP Metasedimentary
Lehigh - CSE - 204
Standing on the Shoulders of Giants Ranking by Combining Multiple SourcesYaoshuang Wang Xiaoguang Qi Brian D. Davison Department of Computer Science &amp; Engineering Lehigh University {yaw206,xiq204,davison}@cse.lehigh.edu June 2007Abstract In most r
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Web Page Classication: Features and AlgorithmsXiaoguang Qi and Brian D. Davison Department of Computer Science &amp; Engineering Lehigh University June 2007Abstract Classication of web page content is essential to many tasks in web information retriev
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Curriculum Vitae: Anne S. MeltzerDepartment of Earth &amp; Environmental Sciences Lehigh University 31 Williams Dr. Bethlehem, PA 18015 610-758-3673 EDUCATION: Ph.D. 1989, Geology and Geophysics, Rice University, Houston, Texas. Thesis title: Crustal st
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Earth and Environmental Sciences 131 Introduction to Rocks and MineralsSpring, 2008Instructor: Teaching Assistant: Class Meetings: Textbooks: Prof. Gray E. Bebout (office: room 410, Williams Hall 31; Network ID: geb0) Annie Palya (office: room 312,
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Chapter 21: MetamorphismFresh basalt and weathered basaltChapter 21: Metamorphism The IUGS-SCMR has proposed the following definition of metamorphism: Metamorphism is a subsolidus process leading to changes in mineralogy and/or texture (for exam
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Collaborative Research: Geodynamics of Indentor CornersPROJECT SUMMARY Across the northeastern margin of the Indian plate in southeastern Tibet, the Himalayan orogen terminates abruptly as collisional processes responsible for the elevation of Tibet
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25 kilometers35 30'3835 15'36+ + + + + + + + + + + + + ++ + +++74 00'NW74 30'34+ + + + + + + + + + + + + + + ++32 70 72 74 76 7810 60Figure 20a. Left: Broadband and short-period array (triangles), regional and local even
Lehigh - ASM - 3
cross-sectionskm6-40.57 0.72 1.24 1.22 1.64 1.14 1.13 0.88 0.6 0.66 1.0 1.23 1.14 1.11 1.06 0.823-4771.11.11.33 1.751.71.23 1.10.930.61 0.861.07 1.371.361.22 0.970.720.401.202.00P0.5 0.52 0.55 0.57 0.54 0.49
Lehigh - DJA - 2
High-Resolution Deformation Rates SpainDavid Anastasio, Ken Kodama, Earth and Environmental Sciences, Lehigh University Josep Pares, Geological Sciences, University of MichiganPico del Aguila, Spanish PyreneesGeology, topography, and surveyed grow
Lehigh - CSE - 2006
An Evaluation of Knowledge Base Systems for Large OWL DatasetsYuanbo Guo, Zhengxiang Pan, and Jeff HeflinComputer Science and Engineering Department, Lehigh University, Bethlehem, PA18015, USA {yug2, zhp2, Heflin}@cse.lehigh.eduAbstract. In this
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A Model Theoretic Semantics for Ontology VersioningJeff Hein and Zhengxiang PanDepartment of Computer Science and Engineering, Lehigh University 19 Memorial Dr. West, Bethlehem, PA 18015, U.S.A. {heflin,zhp2}@cse.lehigh.eduAbstract. We show that
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Eur. J. Mineral. Fast Track DOI: 10.1127/0935-1221/2008/0020-1809Fast Track ArticleThis paper is dedicated to the memory of Werner SchreyerBoromullite, Al9 BSi2 O19 , a new mineral from granulite-facies metapelites, Mount Staord, central Austra
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3.20 Trace Element and Isotopic Fluxes/ Subducted SlabG. E. Bebout Lehigh University, Bethlehem, PA, USAINTRODUCTION THE SEAFLOOR, AS IT ENTERS THE TRENCHES RECENT THERMAL MODELS OF SUBDUCTION EARLY-STAGE PROCESSING OF SEDIMENTS AND PORE WATERS IN
Lehigh - GEB - 0
Chemical Geology 240 (2007) 1 10 www.elsevier.com/locate/chemgeoIsotope-ratio-monitoring gas chromatography methods for high-precision isotopic analysis of nanomole quantities of silicate nitrogenGray E. Bebout a, Bruce D. Idleman a , Long Li a ,
Lehigh - GEB - 0
Earth and Planetary Science Letters 246 (2006) 288 304 www.elsevier.com/locate/epslElemental mixing systematics and SrNd isotope geochemistry of mlange formation: Obstacles to identification of fluid sources to arc volcanicsRobert L. King a,b, Gr
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Geochimica et Cosmochimica Acta 71 (2007) 23442360 www.elsevier.com/locate/gcaNitrogen concentration and d15N of altered oceanic crust obtained on ODP Legs 129 and 185: Insights into alteration-related nitrogen enrichment and the nitrogen subductio
Lehigh - GEB - 0
Chemical Geology 239 (2007) 284 304 www.elsevier.com/locate/chemgeoCycling of B, Li, and LILE (K, Cs, Rb, Ba, Sr) into subduction zones: SIMS evidence from micas in high-P/T metasedimentary rocksGray E. Bebout a, Ann E. Bebout b , Colin M. Graham
Lehigh - GEB - 0
Chemical Geology 239 (2007) 305 322 www.elsevier.com/locate/chemgeoBoron and lead isotope signatures of subduction-zone mlange formation: Hybridization and fractionation along the slabmantle interface beneath volcanic arcsRobert L. King a,b, Gray
Lehigh - DPM - 2
Lehigh inCosta RicaWinter Term December 26, 2007-January 13, 2008ES122: Sustainable Development, The Costa Rican Experience (3-4 credits) Formerly Arts 196 Program Coordinators: Professor Steven Cutcliffe, Department of History Email: shc0@lehig
Lehigh - DPM - 2
Optical Properties of Water (MS 69)D.P. Morris Lehigh University Department of Earth &amp; Environmental Sciences Bethlehem, PA 18015 USA dpm2@lehigh.eduKey Words: absorption coefficient, aquatic ecosystems, diffuse attenuation coefficient, chromopho
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Effects of urbanization on watershed hydrology: The scaling of discharge with drainage areaJoshua C. Galster Frank J. Pazzaglia Bruce R. Hargreaves Donald P. Morris Stephen C. Peters Richard N. WeismanDepartment of Earth and Environmental
Lehigh - DPM - 2
Hydrobiologia (2006) 568:1528 DOI 10.1007/s10750-005-0006-y Springer 2006Primary Research PaperBenecial and detrimental interactive eects of dissolved organic matter and ultraviolet radiation on zooplankton in a transparent lakeSandra L. Cooke
Lehigh - DPM - 2
Biogeochemistry (2005) 75: 393407 DOI 10.1007/s10533-005-1675-3 Springer 2005-1The role of iron and dissolved organic carbon in the absorption of ultraviolet radiation in humic lake waterKELLY O. MALONEY1,2, DONALD P. MORRIS1, CARL O. MOSES1 a
Lehigh - DPM - 2
Limnol. Oceanogr., 46(6), 2001, 14551467 2001, by the American Society of Limnology and Oceanography, Inc.Calculation of spectral weighting functions for the solar photobleaching of chromophoric dissolved organic matter in temperate lakesChristoph
Lehigh - CSE - 398
CSE398: Network Systems DesignInstructor: Dr. Liang Cheng Department of Computer Science and Engineering P.C. Rossin College of Engineering &amp; Applied Science Lehigh UniversityJanuary 17, 2005OutlineCourse informationNSF: Pre-test and lab-logN
Lehigh - CSE - 398
CSE398: Network Systems DesignInstructor: Dr. Liang Cheng Department of Computer Science and Engineering P.C. Rossin College of Engineering &amp; Applied Science Lehigh UniversityJanuary 19, 2005OutlineRecap/discussionEncapsulation, delayEncoding
Lehigh - CSE - 398
CSE398: Network Systems DesignInstructor: Dr. Liang Cheng Department of Computer Science and Engineering P.C. Rossin College of Engineering &amp; Applied Science Assistant Professor, Lehigh UniversityJanuary 24, 2005OutlineRecapEncoding, framing, e
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CSE398: Network Systems DesignInstructor: Dr. Liang Cheng Department of Computer Science and Engineering P.C. Rossin College of Engineering &amp; Applied Science Assistant Professor, Lehigh UniversityJanuary 26, 2005OutlineRecapSwitching and forwar
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Lab on Traffic Monitoring and Throughput Measurement using TTCPCSE398: Network Systems Design, Lehigh University Instructor: Dr. Liang Cheng, Assistant Professor, Computer Science and Engineering Lab Assistant: Yaoyao Zhu, Ph.D. student in Computer
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CSE398: Network Systems DesignInstructor: Dr. Liang Cheng Department of Computer Science and Engineering P.C. Rossin College of Engineering &amp; Applied Science Lehigh UniversityFebruary 2, 2005OutlineRecapTCP, UDP, application layer protocolsCo
Lehigh - CSE - 398
CSE398: Network Systems DesignInstructor: Dr. Liang Cheng Department of Computer Science and Engineering P.C. Rossin College of Engineering &amp; Applied Science Lehigh UniversityFebruary 7, 2005OutlineRecapComputer hardware architecture Fetch and
Lehigh - CSE - 398
CSE398: Network Systems DesignInstructor: Dr. Liang Cheng Department of Computer Science and Engineering P.C. Rossin College of Engineering &amp; Applied Science Lehigh UniversityFebruary 9, 2005OutlineRecapPacket processing algorithms (Chapter 5)
Lehigh - CSE - 398
CSE398: Network Systems DesignInstructor: Dr. Liang Cheng Department of Computer Science and Engineering P.C. Rossin College of Engineering &amp; Applied Science Lehigh UniversityFebruary 14, 2005OutlineRecapWhy &quot;do not fragment&quot;? Some concepts. Pa