81. Land Use History Of The Colorado Plateau-Geomorphology Toolsgeomorphology. Photo © 1999 by Ray Wheeler. geomorphology is the study of the forms of the Earth s surface and of the processes that mold them. http://www.cpluhna.nau.edu/Tools/geomorphology.htm

Search the CP-LUHNA Web pages ARCHAEOLOGICAL Archaeoastronomy BIOLOGICAL Packrat Middens Amphibians and Reptiles Arthropods Birds ... Pollen CHRONOLOGICAL Dendrochronology Fire Scars Radiocarbon Dating Other Techniques GEOGRAPHICAL GIS Remote Sensing GEOLOGICAL Stratigraphic Sediments Geomorphology Volcanism Glaciers HISTORICAL Land Surveys Written Histories Repeat Photography Stream Gaging Geomorphology Author: Diane Rowland, Center for Environmental Sciences and Education, Northern Arizona University Coral Pink Sand Dunes State Park in southwestern Utah. The unusual ecosystem in this valley contains both old-growth ponderosa pine forest and Sahara-like dune sand. Photo © 1999 by Ray Wheeler Geomorphology is the study of the forms of the Earth's surface and of the processes that mold them. More recent geologic features - sand dunes, rivers, soils, lake basins, and alluvial fans, to name a few - are in most cases still undergoing formational processes. The response of these features to recent changes in climate and land use makes geomorphology an important tool for understanding our changing global climate and the effects of our increasingly intensive use of the landscape.

82. Earth Surface Processes And Landforms Journal for the publication of research papers on all aspects of geomorphology. Published by John Wiley Sons, Ltd. http://www.interscience.wiley.com/jpages/0197-9337/

83. GLY 4700 - Fall 1998 - USF geomorphology GLY 4700. Fall Semester, 1998. Bloom, Arthur L., 1988. geomorphology - A Systematic Analysis of Late Cenozoic Lanforms, Third Edition. http://chuma.cas.usf.edu/~oches/gly4700.htm

GEOMORPHOLOGY - GLY 4700 Fall Semester, 1998 Thelin and Pike 1991, USGS Map I-2206 Course Schedule Additional Reference List Lab Assignments Project Assignment Page Geomorphology Links Instructor: Dr. Rick Oches T.A.: Tom Griggs SCA 510 CHE 326 oches@chuma1.cas.usf.edu Office Hours: Wed 2:00 - 4:00 Class meeting times: 2:00 - 3:15 pm CHE 102 Lab: Thursday 3:30 - 6:20 pm CHE 326 Course Objectives: Geomorphology, broadly speaking, is the study of landforms, the Earth’s surface, and processes acting on them. In this class we will explore the physical processes responsible for the continually evolving surficial geology and gain an appreciation for the dynamic nature of Earth’s surface. Through class lectures, discussions, group activities and laboratory and field exercises, we will learn about the historical development of the field, techniques of geomorphic investigation, surficial processes operating in diverse environments and landscapes, and computer and Internet resources for geomorphic research. Finally, through an independent research project or term paper, which will be presented to the class at the end of the semester, each person will have an opportunity to explore in depth a particular facet of geomorphology that he/she finds particularly intriguing. Required Textbook: The text listed below is available in the university bookstore. I will also occasionally assign outside readings which will be made available in the geology department learning center (CHE 326) short-term borrowing and copying. Reading assignments are listed on the course outline that follows - please do the assigned reading

84. Landform Analysis Journal of the Association of Polish Geomorphologists, publishing original scientific works in all aspects of geomorphology, in English. Includes information on submissions and subscriptions, plus tables of contents for some past issues. http://main.amu.edu.pl/~sgp/la/laintr.htm

Landform Analysis Journal of the Association of Polish Geomorphologists Founded by Stefan Kozarski Published by the University of Silesia and the Association of Polish Geomorphologists The purpose of the Landform Analysis is to publish articles of high scientific or practical interest in any aspects of geomorphological studies. Language of the journal is English. Publication is free of page charge and author will receive free 25 offprints of the paper plus one copy of a particular volume. The Editorial Board would particularly welcome the submission of papers not yet published. However, in certain cases papers published originally in other languages than English will also be taken into consideration. It is intended to enable dissemination of scientific achievements of scientists from non English speaking countries (e.g. from Central and Eastern Europe). Join the Landform Analysis as an author and a reader! Home Volumes Editorial Board Submission Comments Aims and scope Cele i zakres Landform Analysis publishes original scientific works which concern all aspects of geomorphology. The works which considerably reach beyond geomorphological studies (e.g. stratigraphy, lithology, chemical composition of deposits, computer models, cartographic and remote sensing problems) will not be published if they are not associated with analysis of landforms, their evolution, morphogenetic processes and new methods in geomorphology.

85. GEOMORPHOLOGY AT CYDONIA - MARS FACE _. geomorphology AT CYDONIA. By James L. Erjavec. Copyright copy; 1996 by James L. Erjavec. http://www.greatdreams.com/geology.htm

GEOLOGIST QUESTIONS "DIFFERENTIAL EROSION" AT CYDONIA GEOMORPHOLOGY AT CYDONIA By James L. Erjavec (Notes and editing by Stanley V. McDaniel, author of The McDaniel Report) ABOUT THE AUTHOR: James L. Erjavec has an M.S. in geology from The University of Arizona, Tucson, Arizona, and a B.S. in geology from The Cleveland State University, Cleveland, Ohio. He is a geologist and Computer/Geographic Information System (GIS) Analyst with over 13 years experience in those fields. A specialist in mapping and computer graphics, he has developed an extensive geomorphic feature map of the Cydonia region to assist in the establishment of a geologic baseline for continued studies. The paper presented below is a shortened form of a longer piece titled "A Geologic and Geomorphic Investigative Approach to some of the Enigmatic Cydonia Landforms." It is important to consider Erjavec's paper in relation to NASA's claim that the debated landforms at Cydonia have already been subjected to a thorough scientific study. From Erjavec's discussion it would appear that NASA geomorphologists who maintain that the debated Cydonian objects are simply a result of "differential erosion" have not had the last word on this subject and that there is much to learn. For further information regarding the

86. The CfA Sea Level Homepage Information about the effects sea level change on coastal geomorphology from the HarvardSmithsonian Center for Astrophysics. http://cfa-www.harvard.edu/space_geodesy/SEALEVEL/

CURRENT PROJECTS Antenna Multipath Calibration System Atlantic Mediterranean Interdisciplinary GPS Atmospheric Structure and Dynamics Basin and Range Geodetic Network ... Western U.S. Cordillera Deformation Field LINKS Space Geodesy Home Center for Astrophysics Home Sea Level Home Hazards of Sea Level Rise: An Introduction by Stacy Archfield Sea level has fluctuated by an order of 100 meters over the last 18,000 years [Michener et al., 1997]. Global sea level can change due to three factors: 1-Change in the volume of the ocean basins, 2-Expansion or shrinking of ocean water due to changes in climate and 3-Periods of worldwide glacial advance and retreat [Davis, 1997]. Human impact has no control over changing the volume of the ocean basins. However, the greenhouse effect can cause the ocean to gather thermal inertia that will heat the continents and slowly melt the polar ice caps, increasing sea level worldwide [Michener et al., 1997]. The effects of sea level rise will be spatially non-uniform since GIA will cause some areas to uplift and others to subside [Gornitz, 1991]. Furthermore, the characteristics of a given coastline are controlled by many different variables, including interactions between lithology, geomorphology, wave climate, currents and storm frequencies [Gornitz, 1991]. Gornitz defines the following terms to be used in talking about coastal hazard assessments: Gornitz also states "sea level rise is a global-scale, long-term hazard, which may, in the long run, inflict greater damage [to a coastline] than that of a hurricane. Eustatic sea level rise over the next century will be the sum of the individual contributors from thermal expansion of sea water and ice melting from alpine glaciers and the polar ice sheets."

87. Geomorph_ucla Why geomorphology Research work in the department People of geomorphology Courses in geomorphology Subfields of geomorphology Coastal http://www.geog.ucla.edu/~geomorph/

Why geomorphology Research work in the department People of geomorphology Courses in geomorphology Why geomorphology Research work in the department People of geomorphology Courses in geomorphology ... This page is maintained by Jinrui Cui, Any comments and suggestions

88. Coastal PR Introduction to the terminology and major research fields of coastal geomorphology, from the Geological Oceanography Program of the University of Puerto Rico. http://rmocfis.uprm.edu/~morelock/cstln.htm

The character of shorelines results from the geological factors that set the stage and the physical processes that script the present story. To understand the development of coastal landforms, we must consider such things as tidal influences, wave climate, rock resistance, shoreline configuration and offshore bathymetry. The coast is a meeting place of energies in which rivers carry sediment to the sea where it is redistributed by marine processes. If the waves and currents cannot keep pace with the sediment supply, then deltas, bars, and other depositional features build the coast seaward. Where marine forces are stronger, the sediments are distributed across the shelf. This chapter attempts to integrate short- and long-term factors into an understanding of why our world's coastlines are the way they are today. Once an overall view has been presented, we discuss the individual environments that are part of today's coastlines ( i.e. , beaches, estuaries). And finally, we discuss the ever-changing coastal landscape, focusing first on natural changes and then on how man fits (or doesn't) into this as either a passive inhabitant or an active player trying to control his surroundings. The world's coastlines are comprised of a variety of complex environments that are controlled by geologic setting, sediment supply and local physical processes. Dividing coastal environments for the sake of discussion is difficult because such features as beaches, dunes, tidal flats, and marshes are often part of a larger system that is best understood in its entirety rather than by examining its components. On the other hand, it is impractical to discuss all possible combinations. As a compromise, the individual components are described, within a discussion of the more important depositional systems that they can make up. It is important to remember that each section of coastline is part of a larger coastal mosaic, the behavior of which is the result of interactions. By necessity, an extensive literature is covered in very few pages. The reader wanting more details is referred especially to the book by Davis

89. Geomorphology From Space geomorphology from Space is an out of print 1986 NASA publication edited by Nicholas M. Short, Sr. and Robert W. Blair, Jr. designed http://geoinfo.amu.edu.pl/wpk/geos/GEO_HOME_PAGE.html

Original WWW site Geomorphology from Space is an out of print 1986 NASA publication edited by Nicholas M. Short, Sr. and Robert W. Blair, Jr. designed for use by the remote sensing science and educational communities to study landforms and landscapes. The core of this book is a gallery of space imagery consisting of 237 plates, each treating a geographic region where a particular landform theme is exemplified. Commentary, photographs, locator maps, and sometimes a geologic map accompany each plate. Table of Contents Introduction Tectonic Volcanic ... Materials Goddard DAAC Helpdesk: daacuso@daac.gsfc.nasa.gov phone: 301-614-5224 or 1-800-257-6151 Web Curator: Dan Ziskin: ziskin@daac.gsfc.nasa.gov Page Author: Linda McNeely mcneely@daac.gsfc.nasa.gov NASA official: Paul Chan, GDAAC Manager: chan@daac.gsfc.nasa.gov Last Update: Mon Jun 23 8:42 EDT 1997 (c) 1998 Wydzia³owa Pracownia Komputerowa Webmaster , Ostatnia aktualizacja 1998.03.12

90. Expgeom Startframe A key area of interest of the Laboratory for Experimental geomorphology is the study of the processes and mechanics of overland flow hydraulics and soil erosion, including raindrop impact, interrill and rill erosion, gully erosion and tillage erosion. http://www.kuleuven.ac.be/facdep/geo/fgk/leg/pages/exphome.htm

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91. SFX Services For This Record Source, geomorphology 0169555X. Your browser does not support javascript. You can access services with the button. Full text available http://nelli.nelliportaali.fi:9003/sfx_local?sid=HY:ejournals&genre=journal&issn

92. Sorry Information for a high school class in geomorphology. http://www.needham.k12.ma.us/high_school/cur/Envir98_99/p1/ARS_P1/ars_p1/BEACHE~

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93. Our Hoosier State Beneath Us: Geomorphology geomorphology. Anderson Falls Bear Creek Canyon and Portland Arch Bluespring Caverns a unique system of Hoosier caves Bluffs of http://www.indiana.edu/~librcsd/etext/hoosier/gm.html

Geomorphology Anderson Falls Bear Creek Canyon and Portland Arch Bluespring Caverns: a unique system of Hoosier caves Bluffs of Beaver Bend: a scenic feature of Martin County ... Wyandotte Cave

94. Ozark Stream Geomorphology Part of the US Geological Survey, The Ozarks Stream geomorphology Project studies stream habitats in the Ozark Highlands. http://www.cerc.cr.usgs.gov/rss/osgp/default.htm

Click here for an overview of the project! Welcome to the home page of the Ozarks Stream Geomorphology Project , a research project investigating the effects of land use and climate change on Ozarks streams and their ecology. This project is designed to provide land managers with information that will help conserve aquatic habitat in the context of environmental change. Research is conducted by the Biological Resources Division of the U.S. Geological Survey and involves a team of hydrologists from the Columbia Environmental Research Center in collaboration with biologists from the Cooperative Research Unit, University of Missouri-Columbia . This web site will guide you through the project's principal research questions, the biological and geological tools used, and will link you to technical publications. Check out our technical document about mapping stream habitats with hydraulic models. New! Assessment of Physical Stream Habitat, Bear Creek, Arkansas River Studies Station Home Missouri River Habitat Dynamics Ozarks Stream Geomorphology URL: http://www.cerc.usgs.gov/rss/

95. Geomorphology geomorphology. geomorphology is the History. geomorphology was not originally differentiated from the rest of geology. The first geomorphic http://www.fact-index.com/g/ge/geomorphology.html

Main Page See live article Alphabetical index Geomorphology Geomorphology is the study of present-day landforms , including their classification, description, nature, origin, development, and relationships to underlying structures, as well as the history of geologic changes as recorded by these surface features. The term is sometimes restricted to features produced only by erosion and deposition . Although geomorphology tends to focus on terrestrial landforms, the surfaces of the Moon and Mars are now sufficiently well-known for morphological analysis to be applied there as well. Geomorphology is fundamentally inspired by the shapes of the terrain we see every day; the meandering course of a river , the rounded shapes of some hills and the pointed shapes of others, the seemingly-random capes and bays of a coastline . While it is generally accepted that, for instance, water erodes rock over a long period of time, that doesn't answer the question of whether any particular landform was created by water erosion, how long ago, whether wind played a role also, and so forth. Geomorpology delves into these questions in depth, seeking both to explain origins, and so to provide predictive power that can be used in activities such as civil engineering Some geomorphologists identify a taxonomy of landforms, sorted by magnitude:

96. Geomorphology Or Landscapes geomorphology or Landscapes. KidSat, NASA. This site is planned and operated by students and contains pictures and information about http://www.uky.edu/KGS/education/geomorphology.html

Geomorphology or Landscapes KidSat , NASA. This site is planned and operated by students and contains pictures and information about the weather and atmosphere as viewed from space. Under the education and curriculum heading, Unit 2 is about landscapes and contains lessons, goals, and objectives. There is also information about how pictures are taken from space, mission information, a photo gallery, and teacher training. Earth System Science , Universities Space Systems Association. This site is maintained by a cooperative University Program and NASA. It's goal is to provide information and foster collaboration concerning studies of Earth's global systems. It has a comprehensive link to data sources (many NASA's own) that provide access to hundreds of locations for data, maps, satellite images, software tools, system diagrams, pictures, and videos concerning various landscapes on the Earth's surface. Under the Data Resources subheading, scroll down to Satellite Images and choose the Satellite Radar Images site for some wonderful ESS images of rivers, mountains, volcanoes, etc. Terra Server , Microsoft. This site uses U.S. Geological Survey aerial photos around the world. You can search sites by typing in the name of a location, choosing a location from a world map, or choose from a gallery of famous locations. You can use the photos to show what various types of landforms look like from the air.

97. 2004 Binghamton Geomorphology Symposium 2004 Binghamton geomorphology Symposium October 1 3, 2004. The 35th Binghamton geomorphology Symposium will be held October 1-3 http://www.uky.edu/AS/Geography/Binghamton04/

2004 Binghamton Geomorphology Symposium October 1 - 3, 2004 The 35th Binghamton Geomorphology Symposium will be held October 1-3, 2004 at the University of Kentucky in Lexington. The theme is Weathering and Landscape Evolution, and we hope you will join us. Geomorphologists specializing or dealing in weathering belong to a number of different communities, defined in various ways; for example, geomorphic communities may deal with karst, arid environments, arctic/alpine environments, tropical environments, soils and regoliths, granitic terrains, cultural stone decay and conservation, laterites and ferricretes, solutes, landscape geochemistry, and geological interpretations of regoliths and weathering profiles, to name a few. Acknowledgement is made to the donors of The American Chemical Society Petroleum Research Fund for partial support of this symposium. TIMELINE: August 1, 2004: Deadline for poster abstracts CALL FOR POSTERS A poster session will be offerred in addition to the oral presentations. You are invited to submit an abstract and poster presentation for the 2004 Binghamton Geomorphology Symposium on Weathering and Landscape Evolution. Posters can emphasize any aspect of current or recent research on weathering processes or forms, or the interpretation and significance of weathering in landscape evolution. Abstracts will appear in the conference program along with those of the oral presentations. Poster presenters must register for the conference; please submit your registration with your poster abstract. Students who present posters will receive a $15 discount on registration.

98. Vls.icm.edu.pl/cgi-bin/sciserv.pl?collection=elsevier Journal=0169555x geomorphology Website The College of Wooster (Spring 2004)caption. geomorphology - GEOLOGY 300. SPRING 2004. Instructor e-mail gwiles@acs.wooster.edu. Welcome to the geomorphology class web page. Please http://vls.icm.edu.pl/cgi-bin/sciserv.pl?collection=elsevier&journal=0169555x

99. Mars Pathfinder - Science Results - Geology And Geomorphology Part of the Mars Library Click here for Main Index. Geological History Geology and geomorphology. Mars Pathfinder Science Results. http://calspace.ucsd.edu/marsnow/library/science/geological_history/surface_laye

Part of the Mars Library Click here for Main Index Geological History: Geology and Geomorphology Mars Pathfinder Science Results When the Mars Pathfinder landed and the first close up images of Mars were taken, they revealed a rocky plain, a fifth of which was covered by rocks which appeared to have been deposited and shaped by catastrophic floods. This had been predicted from remote-sensing data and knowledge about the landing site (19.13 degrees north, 33.22 degrees west), which was downstream from the mouth of Ares Vallis in the low area known as Chryse Planitia. In Viking orbiter images, the area appeared analogous to the Channeled Scabland in eastern and central Washington state. This analogy suggests that Ares Vallis formed when hundreds of cubic kilometers of water was catastrophically released, carving the observed channel in a few weeks. The density of impact craters in the region indicates it formed somewhere between 1.8 and 3.5 billion years ago. The top image is a view to the northeast of the lander and is annotated to show the variety of rocks in this landing site and what they tell us. The red arrows point to rounded boulders and rocks thought to have been shaped by the forces of water in flood (rough edges knocked off by the tumbling action of the water). The blue arrows indicate rocks with sharp edges and points, most probably ejected from nearby impact craters and/or ancient volcanic activity. The white areas (of which Scooby Doo is one) are believed to be deposits left behind by evaporating water, or aggregates of materials fused together by the action of water.

100. Geomorphological Information : CTI Centre For Geography, Geology And Meteorology geomorphology. International and National Organisations. NASA geomorphology from Space A gallery of space imagery featuring specific themes. http://www.geog.le.ac.uk/cti/geom.html

Geomorphology International and National Organisations British Geomorphological Research Group British Geological Society Canadian Geomorphology Research Group (Canada) International Association of Geomorphologists (US) International Union For Quaternary Research (Norway) International Permafrost Association Japanese Geomorphological Union (Japan) Association of Polish Geomorphologists (Poland) Quaternary Geology and Geomorphology Division of the Geological Society of America (US) South African Association of Geomorphologists (Africa) Data/Information libraries World Data Center A (US) World Data Center B (Russia) World Data Center C1 (Denmark) World Data Center D (China) Coastal Data NOAA's Medium Resolution Digital Vector Shoreline data set. (US) World Data Center System Global Shoreline Database (US) Terrain Data National Imagery and Mapping Agency Digital Terrain Elevation Data (US) Karst Data World Cave Database: database of long and deep caves from all around the world in three classes: depth (deeper than 300m), by length (longer than 3kms), and classified by country. (France) Education Materials/On-line Courses Arid Environments Yazd: Iranian Desert : detailed on-line guide Coastal Processes East Yorkshire Coast - Geology and Geomorphology: An illustrated brochure showing the relationship of the visible landforms of the Yorkshire Coast to the underlying geology and the geomorphic processes that have shaped them. An excellent UK case study providing a useful insight into coastal processes.

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