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Wilderness Visitors and Recreation Impacts: Baseline Data Available for Twentieth Century Conditions
United States Department of Agriculture Wilderness Visitors and Forest Service Recreation Impacts: Baseline Rocky Mountain Research Station Data Available for Twentieth General Technical Report RMRS-GTR-117 Century Conditions September 2003 David N. Cole Vita Wright Abstract __________________________________________ Cole, David N.; Wright, Vita. 2003. Wilderness visitors and recreation impacts: baseline data available for twentieth century conditions. Gen. Tech. Rep. RMRS-GTR-117. Ogden, UT: U.S. Department of Agriculture, Forest Service, Rocky Mountain Research Station. 52 p. This report provides an assessment and compilation of recreation-related monitoring data sources across the National Wilderness Preservation System (NWPS). Telephone interviews with managers of all units of the NWPS and a literature search were conducted to locate studies that provide campsite impact data, trail impact data, and information about visitor characteristics. Of the 628 wildernesses that comprised the NWPS in January 2000, 51 percent had baseline campsite data, 9 percent had trail condition data and 24 percent had data on visitor characteristics. Wildernesses managed by the Forest Service and National Park Service were much more likely to have data than wildernesses managed by the Bureau of Land Management and Fish and Wildlife Service. Both unpublished data collected by the management agencies and data published in reports are included. Extensive appendices provide detailed information about available data for every study that we located. These have been organized by wilderness so that it is easy to locate all the information available for each wilderness in the NWPS. Keywords: campsite condition, monitoring, National Wilderness Preservation System, trail condition, visitor characteristics The Authors _______________________________________ David N. -
Mountains, Streams, and Lakes of Oklahoma I
Information Series #1, June 1998 Mountains, Streams, and Lakes of OklahomaI Kenneth S. Johnson2 INTRODUCTION valleys, hills, and plains throughout most of the re mainder of Oklahoma (Fig. 1). All the major lakes and Mountains and streams define the landscape of reservoirs of Oklahoma are man-made, and they are Oklahoma (Fig. 1). The mountains consist mainly of important for flood contr()l, water supply, recreation, resistant rock masses that were folded, faulted, and and generation of hydroelectric power. Natural lakes thrust upward in the geologic past (Fig. 2), whereas in Oklahoma are limited to oxbow lakes along major the streams have persisted in eroding less-resistant streams and to playa lakes in the High Plains region rock units and lowering the landscape to form broad of the west. Alphabetical List of20 Lakes with Largest Surface Area (from Oklahoma Water Atlas, Oklahoma Water Resources Board) 1. Broken Bow 11. Lake 0' The Cherokees 2. Canton 12. Oologah 3. Eufaula 13. Robert s. Kerr 4. Fort Gibson 14. Sardis 5. Foss 15. Skiatook 6. Great Salt Plains 16. Tenkiller Ferry ·7. Hudson 17. Texoma 8. Hugo 18. Waurika 9. Kaw 19. Webbers Falls 10. Keystone 20. Wister Modified from Historical Atlas of Oklahoma, by John W. Morris, Charles R. Goins, and Edwin C. 25 McReynolds. Copyright © 1986 by the University I of Oklahoma Press. o 40 80Km Figure 1. Mountains, streams, and principal lakes of Oklahoma. lReprinted from Oklahoma Geology Notes (1993), vol. 53, no. 5, p. 180-188. The Notes article was reprinted and expanded from Oklahoma Almanac, 1993-1994, Oklahoma Department of Lihraries, p. -
NATURAL RESOURCES (Updated Excerpt from Jo Daviess Comprehensive Plan Baseline Data)
ATTACHMENT F: NATURAL RESOURCES (Updated excerpt from Jo Daviess Comprehensive Plan Baseline Data) The natural resources in Jo Daviess County are unique relative to the rest of the state and much of the mid-west because the county is part of the Wisconsin Driftless Region bypassed by continental glaciers of the Ice Age. This region covers parts of southern Minnesota and Wisconsin, Northwestern Illinois and Northeastern Iowa. Glaciated areas were leveled, strewn with glacial debris or "drift" and dotted with lakes and ponds. The driftless areas, on the other hand, have bedrock close to the surface into which deep valleys have been carved by millions of years of weather and erosion. In Jo Daviess County, streams are numerous and the only two lakes are man-made. The relief from the higher ridges to the valley floors is typically 300 feet or more creating a rugged and scenic landscape. Ecosystems can be found in this landscape that are older than those found in glaciated areas. Geology The topography of Jo Daviess County is characterized by rugged relief unique to most of Illinois. Our county, located in the far northwestern corner of the state, is in an area spared by the major glaciations of the last two million years. It is, accordingly, called the "Driftless Area" by geologists, the term "drift" referring to material deposited by glacial activity. The visible landscape that we see today began during the Paleozoic Era (570 to 245 million years ago) when shallow seas repeatedly inundated the interior of the continent. Shells of marine animals, along with muds, silts and sands from eroding highlands, were periodically deposited in those sea bottoms. -
Encounters with the Early Highpointers by Charles
SOME CLOSE (AND NOT SO CLOSE) ENCOUNTERS WITH THE EARLY HIGHPOINTERS BY CHARLES FERIS Many stories can be told of how we got our first inspiration to pursue this hobby of ours, this highpointing. We’ve been inspired in a hundred ways; mine arose during a period of boredom, while in college. Seeking something other than study, I took out a Rand McNally road atlas, and looked at a map of my native state of Illinois, noting the little red dot in the northwest corner of the state. Wow, something neat to do. So while the other kids were off to Florida, off to Charles Mound I went during spring break 1961. Then it hit me; I had already done Mt. Whitney the year before, so why not do all the states. Now I was really excited. The next few years saw me collecting 13 more highpoints in the Midwest and southeast. I went my merry way, never realizing that others might be crazy enough to be pursuing the very same project. At this point I was not aware of the tiny fraternity of early highpointers who were already years before me. I had no idea of the remarkable people I was about to meet. Then in August 1965 a Sierra Club friend of mine in Chicago told me about C. Rowland Stebbins. I had found a kindred soul, one who had already completed the 48. I phoned him immediately. Soon my wife and I were off on the four hour drive to Lansing, Michigan. We arrived to an expansive mansion on Moore’s River Drive atop a bluff overlooking the Grand River. -
Saddlebrooke Hiking Club Hike Database 11-15-2020 Hike Location Hike Rating Hike Name Hike Description
SaddleBrooke Hiking Club Hike Database 11-15-2020 Hike Location Hike Rating Hike Name Hike Description AZ Trail B Arizona Trail: Alamo Canyon This passage begins at a point west of the White Canyon Wilderness on the Tonto (Passage 17) National Forest boundary about 0.6 miles due east of Ajax Peak. From here the trail heads west and north for about 1.5 miles, eventually dropping into a two- track road and drainage. Follow the drainage north for about 100 feet until it turns left (west) via the rocky drainage and follow this rocky two-track for approximately 150 feet. At this point there is new signage installed leading north (uphill) to a saddle. This is a newly constructed trail which passes through the saddle and leads downhill across a rugged and lush hillside, eventually arriving at FR4. After crossing FR4, the trail continues west and turns north as you work your way toward Picketpost Mountain. The trail will continue north and eventually wraps around to the west side of Picketpost and somewhat paralleling Alamo Canyon drainage until reaching the Picketpost Trailhead. Hike 13.6 miles; trailhead elevations 3471 feet south and 2399 feet north; net elevation change 1371 feet; accumulated gains 1214 northward and 2707 feet southward; RTD __ miles (dirt). AZ Trail A Arizona Trail: Babbitt Ranch This passage begins just east of the Cedar Ranch area where FR 417 and FR (Passage 35) 9008A intersect. From here the route follows a pipeline road north to the Tub Ranch Camp. The route continues towards the corrals (east of the buildings). -
TOPOGRAPHIC MAP of OKLAHOMA Kenneth S
Page 2, Topographic EDUCATIONAL PUBLICATION 9: 2008 Contour lines (in feet) are generalized from U.S. Geological Survey topographic maps (scale, 1:250,000). Principal meridians and base lines (dotted black lines) are references for subdividing land into sections, townships, and ranges. Spot elevations ( feet) are given for select geographic features from detailed topographic maps (scale, 1:24,000). The geographic center of Oklahoma is just north of Oklahoma City. Dimensions of Oklahoma Distances: shown in miles (and kilometers), calculated by Myers and Vosburg (1964). Area: 69,919 square miles (181,090 square kilometers), or 44,748,000 acres (18,109,000 hectares). Geographic Center of Okla- homa: the point, just north of Oklahoma City, where you could “balance” the State, if it were completely flat (see topographic map). TOPOGRAPHIC MAP OF OKLAHOMA Kenneth S. Johnson, Oklahoma Geological Survey This map shows the topographic features of Oklahoma using tain ranges (Wichita, Arbuckle, and Ouachita) occur in southern contour lines, or lines of equal elevation above sea level. The high- Oklahoma, although mountainous and hilly areas exist in other parts est elevation (4,973 ft) in Oklahoma is on Black Mesa, in the north- of the State. The map on page 8 shows the geomorphic provinces The Ouachita (pronounced “Wa-she-tah”) Mountains in south- 2,568 ft, rising about 2,000 ft above the surrounding plains. The west corner of the Panhandle; the lowest elevation (287 ft) is where of Oklahoma and describes many of the geographic features men- eastern Oklahoma and western Arkansas is a curved belt of forested largest mountainous area in the region is the Sans Bois Mountains, Little River flows into Arkansas, near the southeast corner of the tioned below. -
Overview of the Strategic and Structural Evolution of the Talladega Slate Belt, Alabama Appalachians
fl d029-08 1st pgs page 1 The Geological Society of America Field Guide 29 2012 Overview of the stratigraphic and structural evolution of the Talladega slate belt, Alabama Appalachians James F. Tull* Department of Earth, Ocean, and Atmospheric Science, Florida State University Clinton I. Barineau* Department of Earth and Space Sciences, Columbus State University ABSTRACT The allochthonous Talladega belt of eastern-northeastern Alabama and north- western Georgia is a northeast striking, fault bounded block of lower greenschist facies metasedimentary and metaigneous rocks that formed along the margin of Lau- rentia at or outboard of the seaward edge of the Alabama promontory. Bounded by metamorphic rocks of the higher grade Neoproterozoic(?) to Carboniferous eastern Blue Ridge on the southeast and unmetamorphosed to anchimetamorphic Paleozoic rocks of the Appalachian foreland on the northwest, the Talladega belt includes shelf facies rocks of the latest Neoproterozoic/earliest Cambrian Kahatchee Mountain Group, Cambrian-Ordovician Sylacauga Marble Group, and the latest Silurian(?) to uppermost Devonian/earliest Mississippian Talladega Group. Along the southeast- ern fl ank of these metasedimentary sequences, a Middle Ordovician back-arc terrane (Hillabee Greenstone) was tectonically emplaced along a cryptic pre-metamorphic thrust fault (Hillabee thrust) and subsequently dismembered with units of the upper Talladega Group along the post-metamorphic Hollins Line fault system. Importantly, strata within the Talladega belt are critical for understanding the tectonic evolution of the southern Appalachian orogen when coupled with the geologic history of adjacent terranes. Rocks of the lower Talladega Group, the Lay Dam Formation, suggest latest Silurian-earliest Devonian tectonism that is only now being recognized in other areas of the southern Appalachians. -
Summits on the Air – ARM for the USA (W7A
Summits on the Air – ARM for the U.S.A (W7A - Arizona) Summits on the Air U.S.A. (W7A - Arizona) Association Reference Manual Document Reference S53.1 Issue number 5.0 Date of issue 31-October 2020 Participation start date 01-Aug 2010 Authorized Date: 31-October 2020 Association Manager Pete Scola, WA7JTM Summits-on-the-Air an original concept by G3WGV and developed with G3CWI Notice “Summits on the Air” SOTA and the SOTA logo are trademarks of the Programme. This document is copyright of the Programme. All other trademarks and copyrights referenced herein are acknowledged. Document S53.1 Page 1 of 15 Summits on the Air – ARM for the U.S.A (W7A - Arizona) TABLE OF CONTENTS CHANGE CONTROL....................................................................................................................................... 3 DISCLAIMER................................................................................................................................................. 4 1 ASSOCIATION REFERENCE DATA ........................................................................................................... 5 1.1 Program Derivation ...................................................................................................................................................................................... 6 1.2 General Information ..................................................................................................................................................................................... 6 1.3 Final Ascent -
Magyar Földrajzi Nevek Angol Nyelvre Fordítása
Magyar földrajzi nevek angol nyelvre fordítása Diplomamunka Térképész mesterszak készítette: Horváth Gábor Roland témavezető: Dr. Gercsák Gábor, egyetemi docens Térképtudományi és Geoinformatikai Tanszék Eötvös Loránd Tudományegyetem 2018. EÖTVÖS LORÁND TUDOMÁNYEGYETEM INFORMATIKAI KAR TÉRKÉPTUDOMÁNYI ÉS GEOINFORMATIKAI TANSZÉK DIPLOMAMUNKA-TÉMA BEJELENTŐ Név: Neptun kód: Szak: térképész MSc Témavezető neve: munkahelyének neve és címe: beosztása és iskolai végzettsége: A dolgozat címe: A témavezetést vállalom. .......................................................... (a témavezető aláírása) Kérem a diplomamunka témájának jóváhagyását. Budapest, 20…………………... ........................................................... (a hallgató aláírása) A diplomamunka-témát az Informatikai Kar jóváhagyta. Budapest, 20…………………… …………………………………….. (témát engedélyező tanszék vezetője) Tartalomjegyzék Címlap ..................................................................................................................................................... 1 Témabejelentő ........................................................................................................................................ 2 Tartalomjegyzék ...................................................................................................................................... 1 Bevezetés ................................................................................................................................................. 2 1. fejezet: A jelenlegi helyzet ............................................................................................................. -
Climbing America's
batical leave in Scandinavia, I finally reached the 5895m summit of Africa’s high- est mountain. In 1986, the year after I climbed Kilimanjaro, Dick Bass, Frank Wells, and Rick Ridgeway published Seven Summits, an account of Bass and Wells’ attempt to climb the highest peak on each of the world’s seven continents. I bought their book and devoured it. Inspired by it, I devised my own climbing goal—to climb at least ‘Three-and-a-Half Summits’: namely, at least three of the six highest of the Seven Summits plus Australia’s Mt Kosciuszko, which is a mere 2228m above sea level (i.e., less than half the height of Antarctica’s Vinson Massif, the sixth-lowest of the Seven Summits), and Kosciuszko can therefore, as a Kiwi I quipped, really only be regarded as a half-summit. I made reasonably quick progress towards achieving my goal. In August 1994, I climbed Russia’s Mt Elbrus, 5642m, the highest mountain in Europe. In December the same year, I summited 6962m-high Cerro Aconcagua in Argentina, the highest mountain in South America (which I like to tell people is ‘the highest mountain in the world outside Asia,’ and then hope their geography is so weak that they don’t realise how huge an exclusion clause those two words, ‘outside Asia’, are). I then decided to have a crack at climbing Denali, and on 6 July 1997 stood proudly on the 6194m-high summit of North America’s high- est peak and held up a t-shirt from Victoria University (which is where I taught political science for many years). -
Table 7 - National Wilderness Areas by State
Table 7 - National Wilderness Areas by State * Unit is in two or more States ** Acres estimated pending final boundary determination + Special Area that is part of a proclaimed National Forest State National Wilderness Area NFS Other Total Unit Name Acreage Acreage Acreage Alabama Cheaha Wilderness Talladega National Forest 7,400 0 7,400 Dugger Mountain Wilderness** Talladega National Forest 9,048 0 9,048 Sipsey Wilderness William B. Bankhead National Forest 25,770 83 25,853 Alabama Totals 42,218 83 42,301 Alaska Chuck River Wilderness 74,876 520 75,396 Coronation Island Wilderness Tongass National Forest 19,118 0 19,118 Endicott River Wilderness Tongass National Forest 98,396 0 98,396 Karta River Wilderness Tongass National Forest 39,917 7 39,924 Kootznoowoo Wilderness Tongass National Forest 979,079 21,741 1,000,820 FS-administered, outside NFS bdy 0 654 654 Kuiu Wilderness Tongass National Forest 60,183 15 60,198 Maurille Islands Wilderness Tongass National Forest 4,814 0 4,814 Misty Fiords National Monument Wilderness Tongass National Forest 2,144,010 235 2,144,245 FS-administered, outside NFS bdy 0 15 15 Petersburg Creek-Duncan Salt Chuck Wilderness Tongass National Forest 46,758 0 46,758 Pleasant/Lemusurier/Inian Islands Wilderness Tongass National Forest 23,083 41 23,124 FS-administered, outside NFS bdy 0 15 15 Russell Fjord Wilderness Tongass National Forest 348,626 63 348,689 South Baranof Wilderness Tongass National Forest 315,833 0 315,833 South Etolin Wilderness Tongass National Forest 82,593 834 83,427 Refresh Date: 10/14/2017 -
NORTHERN ARIZONA PROVINCE (024) by W.C
NORTHERN ARIZONA PROVINCE (024) By W.C. Butler INTRODUCTION This province covers about 59,000 sq mi, mostly in the southwestern part of the Colorado Plateau. Significant geologic features include the Grand Canyon, Kaibab Arch, Mogollon Highlands transition zone, Monument Uplift, Defiance Uplift, Black Mesa Basin, Holbrook Basin, and southern edges of the Kaiparowits and Blanding Basins. The stratigraphic section shown for northeastern Arizona has demonstrated the highest petroleum potential in Arizona. See Wilson (1962), Butler (1988a), and Dickinson (1989) for synopses of the province's geology and evolution. The lithologically and structurally complex basement of the Colorado Plateau area evolved from northwest-younging Proterozoic terranes sequentially accreted onto the Archean craton. As much as 12,000 ft of Middle and Late Proterozoic strata is preserved in possible rift-aulacogen depositional settings in central Arizona. Thick, unmetamorphosed, organic-rich Late Proterozoic strata deposited in backarc basins or continental lakes of north-central Arizona and south-central Utah have good petroleum potential. The plateau area, as a passive Paleozoic plate margin and buffered Mesozoic retro-arc platform, has been remarkably tectonically stable during Phanerozoic time. The area is characterized by blanket Paleozoic strata, as much as 6,000 ft thick, consisting of mostly shallow marine clastics and carbonates showing numerous disconformities. These strata accumulated during transgressions and regressions from both the northwest and southeast, onlapping and thinning toward the trans-continental arch – a northeast-trending positive area extending from the northeast into central Arizona. Convergence between North and South American tectonic plates, with reactivation of basement blocks, during the late Paleozoic created the plateau's fault-bounded basins and uplifts.