Field Guide to Berea Sandstone Outcrops in the Black River Valley
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Cambrian Ordovician
Open File Report LXXVI the shale is also variously colored. Glauconite is generally abundant in the formation. The Eau Claire A Summary of the Stratigraphy of the increases in thickness southward in the Southern Peninsula of Michigan where it becomes much more Southern Peninsula of Michigan * dolomitic. by: The Dresbach sandstone is a fine to medium grained E. J. Baltrusaites, C. K. Clark, G. V. Cohee, R. P. Grant sandstone with well rounded and angular quartz grains. W. A. Kelly, K. K. Landes, G. D. Lindberg and R. B. Thin beds of argillaceous dolomite may occur locally in Newcombe of the Michigan Geological Society * the sandstone. It is about 100 feet thick in the Southern Peninsula of Michigan but is absent in Northern Indiana. The Franconia sandstone is a fine to medium grained Cambrian glauconitic and dolomitic sandstone. It is from 10 to 20 Cambrian rocks in the Southern Peninsula of Michigan feet thick where present in the Southern Peninsula. consist of sandstone, dolomite, and some shale. These * See last page rocks, Lake Superior sandstone, which are of Upper Cambrian age overlie pre-Cambrian rocks and are The Trempealeau is predominantly a buff to light brown divided into the Jacobsville sandstone overlain by the dolomite with a minor amount of sandy, glauconitic Munising. The Munising sandstone at the north is dolomite and dolomitic shale in the basal part. Zones of divided southward into the following formations in sandy dolomite are in the Trempealeau in addition to the ascending order: Mount Simon, Eau Claire, Dresbach basal part. A small amount of chert may be found in and Franconia sandstones overlain by the Trampealeau various places in the formation. -
Lorain, Ohio: a Study in Urban Geography*
THE OHIO JOURNAL OF SCIENCE VOL. XXXV MAY, 1935 No. 3 LORAIN, OHIO: A STUDY IN URBAN GEOGRAPHY* R. B. FROST, Oberlin College TABLE OF CONTENTS PAGE INTRODUCTION 140 PART I. THE NATURAL ENVIRONMENT A. REGIONAL ASPECTS 1. Lake Erie and the Great Lakes Chain 142 2. The Lake Plain 143 (a) Geological Section 3. Appalachian Plateau 145 (a) Northern Glaciated Section (b) Unglaciated Section 4. Climate and Aboriginal Forest Cover 146 B. SITE CHARACTERISTICS 1. Black River and its Estuary 148 2. Lake Erie Shoreline 150 PART II. SEQUENT STAGES OF HUMAN OCCUPANCE (1755-1894) A. THE LANDSCAPE DURING THE INDIAN PERIOD 1. Indian Occupance 151 2. Indian Removal 152 B. THE LANDSCAPE DURING THE PIONEER PERIOD 1. Interim Period 153 2. Village Birth 154 3. Pioneer Developments 155 C. LANDSCAPE DURING THE PERIOD OF GROWTH 1. Agri-functional Character of the Village 158 2. Durand Survey 159 3. Village Extensions 160 4. Population Increase 160 D. A DECADENT VILLAGE 1. Effects of Railroad Expansion on Charleston 161 2. Decline of Population 162 3. Trade Decline 162 4. Persistence of Certain Industries 164 *Publication of this paper is made possible by a grant-in-aid from the trustees of the Research Fund of the Ohio Academy of Science. 139 140 R. B. FROST Vol. XXXV E. THE LANDSCAPE OF THE EARLY INDUSTRIAL PERIOD: A REVIVAL 1. Functional Changes 166 PART III. MODERN LANDSCAPE (1894-1932) A. RECENT GROWTH AND EXTENSION OF LORAIN 1. Landscape Characteristics 173 2. Present Plan 176 B. ELEMENTS OF THE CULTURAL LANDSCAPE 1. Heavy Industrial 182 2. -
Vermillion Harbor, Erie County, Ohio
3 May 1972 FINAL ENVIRONMENTAL STATEMENT VERMILION HARBOR, ERIE COUNTY, OHIO Prepared by: U. S. Army Engineer District, Buffalo, New York 3 May 1972 Vermilion Harbor, Erie County, Ohio ( ) Draft (X) Final Environmental Statement Responsible Office: U. S. Army Engineer District, Buffalo, New York 1. Name of Action; (X) Administrative ( ) Legislative 2. Description of Action: The project involves the construction of a detached "T" type breakwater, a westerly and an easterly approach channel, and river channel extension to permit safe entry into the harbor under reasonably fresh weather conditions and to provide adequate depths in the river channel. Located in Erie County, Ohio. 3. a. Environmental impacts: The modifications to the harbor will permit safer and more extensive utilization of the harbor during rough weather. b. A. Alternatives: No-development. 5. Comments Received: Environmental Protection Agency Bureau of Sport Fisheries and Wildlife United States Coast Guard Bureau of Outdoor Recreation State of Ohio, Dept, of Natural Northeast Ohio Areawide Coordinating Resources Agency National Oceanic and Atmospheric Vermilion Port Authority Administration Lake Erie Watershed Conservation Lorain County Regional Planning Foundation Commission 6. Draft statement to CEQ 19 NOV 71 . Final statement to CEQ i ^ . environmental s t a t e m e n t VERMILION HARBOR, ERIE COUNTY. OHIO Prepared by U. S. A m y Engineer District, Buffalo, New York 1. Project Description. a. The recommended improvements are designed to permit safe entry into the harbor under reasonably fresh weather conditions and to provide adequate depths in the river channel to insure access to and full utilization of existing doc'^n and marine service f a d - lities. -
Chapter 1. Natural History
CHAPTER 1. NATURAL HISTORY CHAPTER 1. NATURAL HISTORY —THE WILDERNESS THAT GREETED THE FIRST SETTLERS The land one sees today traveling through northern Ohio took gone. Thus, some 14,000 years ago as the last glacier receded millions of years to form. We can see evidence of tropical sea into the Lake Erie basin, the first Native Americans arrived and reefs on the Lake Erie Islands and deep ocean sediments here in began to utilize the natural resources that these natural processes the cliffs of the Black River. Ohio was just south of the equator had produced. at that time, some 350 million years ago, and over the millennia The natural history of Sheffield encompasses all those natural has migrated northward to its present position. Mountain features and processes of the environment that greeted the Native building to the east eventually raised the sea floor from under Americans, and later the pioneers, when they first arrived in the waves and erosion by streams, and later glacial ice, began Sheffield. To be sure, the landscape was a magnificent wilderness to sculpture the land. At the same time plants and animals were to the settlers, but it needed to be “tamed” in order to support evolving and began to populate the new land once the ice was the newcomers. Ice formation on the shale bluff of the Black River north of Garfield Bridge (2005). 1 BICENTENNIAL HISTORY OF SHEFFIELD TOPOGRAPHY Regional Physiography The topography of an area is the configuration of the land Physiography refers to the physical features or landforms of surface, including its relief [vertical differences in elevation of a region. -
Stratigraphic Succession in Lower Peninsula of Michigan
STRATIGRAPHIC DOMINANT LITHOLOGY ERA PERIOD EPOCHNORTHSTAGES AMERICANBasin Margin Basin Center MEMBER FORMATIONGROUP SUCCESSION IN LOWER Quaternary Pleistocene Glacial Drift PENINSULA Cenozoic Pleistocene OF MICHIGAN Mesozoic Jurassic ?Kimmeridgian? Ionia Sandstone Late Michigan Dept. of Environmental Quality Conemaugh Grand River Formation Geological Survey Division Late Harold Fitch, State Geologist Pennsylvanian and Saginaw Formation ?Pottsville? Michigan Basin Geological Society Early GEOL IN OG S IC A A B L N Parma Sandstone S A O G C I I H E C T I Y Bayport Limestone M Meramecian Grand Rapids Group 1936 Late Michigan Formation Stratigraphic Nomenclature Project Committee: Mississippian Dr. Paul A. Catacosinos, Co-chairman Mark S. Wollensak, Co-chairman Osagian Marshall Sandstone Principal Authors: Dr. Paul A. Catacosinos Early Kinderhookian Coldwater Shale Dr. William Harrison III Robert Reynolds Sunbury Shale Dr. Dave B.Westjohn Mark S. Wollensak Berea Sandstone Chautauquan Bedford Shale 2000 Late Antrim Shale Senecan Traverse Formation Traverse Limestone Traverse Group Erian Devonian Bell Shale Dundee Limestone Middle Lucas Formation Detroit River Group Amherstburg Form. Ulsterian Sylvania Sandstone Bois Blanc Formation Garden Island Formation Early Bass Islands Dolomite Sand Salina G Unit Paleozoic Glacial Clay or Silt Late Cayugan Salina F Unit Till/Gravel Salina E Unit Salina D Unit Limestone Salina C Shale Salina Group Salina B Unit Sandy Limestone Salina A-2 Carbonate Silurian Salina A-2 Evaporite Shaley Limestone Ruff Formation -
Subsurface Facies Analysis of the Devonian Berea Sandstone in Southeastern Ohio
SUBSURFACE FACIES ANALYSIS OF THE DEVONIAN BEREA SANDSTONE IN SOUTHEASTERN OHIO William T. Garnes A Thesis Submitted to the Graduate College of Bowling Green State University in partial fulfillment of the requirements for the degree of MASTER OF SCIENCE December 2014 Committee: James Evans, Advisor Jeffrey Snyder Charles Onasch ii ABSTRACT James Evans, Advisor The Devonian Berea Sandstone is an internally complex, heterogeneous unit that appears prominently both in outcrop and subsurface in Ohio. While the unit is clearly deltaic in outcrops in northeastern Ohio, its depositional setting is more problematic in southeastern Ohio where it is only found in the subsurface. The goal of this project was to search for evidence of a barrier island/inlet channel depositional environment for the Berea Sandstone to assess whether the Berea Sandstone was deposited under conditions in southeastern Ohio unique from northeastern Ohio. This project involved looking at cores from 5 wells: 3426 (Athens Co.), 3425 (Meigs Co.), 3253 (Athens Co.), 3252 (Athens Co.), and 3251 (Athens Co.) In cores, the Berea Sandstone ranges from 2 to 10 m (8-32 ft) thick, with an average thickness of 6.3 m (20.7 ft). Core descriptions involved hand specimens, thin section descriptions, and core photography. In addition to these 5 wells, the gamma ray logs from 13 wells were used to interpret the architecture and lithologies of the Berea Sandstone in Athens Co. and Meigs Co. as well as surrounding Vinton, Washington, and Morgan counties. Analysis from this study shows evidence of deltaic lobe progradation, abandonment, and re-working. Evidence of interdistributary bays with shallow sub-tidal environments, as well as large sand bodies, is also present. -
Guide to the Geology of Northeastern Ohio
SDMS US EPA REGION V -1 SOME IMAGES WITHIN THIS DOCUMENT MAY BE ILLEGIBLE DUE TO BAD SOURCE DOCUMENTS. GUIDE TO THE GEOLOGY of NORTHEASTERN OHIO Edited by P. O. BANKS & RODNEY M. FELDMANN 1970 Northern Ohio Geological Society ELYP.i.A PU&UC LIBRARt as, BEDROCK GEOLOGY OF NORTHEASTERN OHIO PENNSYLVANIAN SYSTEM MISSISSIPPIAN SYSTEM DEVONIAN SYSTEM \V&fe'£:i£:VS:#: CANTON viSlSWSSWM FIGURr I Geologic map of northeastern Ohio. Individual formations within each time unit are not dis- -guished, and glacial deposits have been omitted. Because the bedding planes are nearly ••.crizontal, the map patterns of the contacts closely resemble the topographic contours at those z evations. The older and deeper units are most extensively exposed where the major rivers rave cut into them, while the younger units are preserved in the intervening higher areas. CO «< in Dev. Mississippian r-c Penn. a> 3 CO CD BRADF. KINOERHOOK MERAMEC —1 OSAGE CHESTER POTTSVIUE ro to r-» c-> e-> e= e-i GO n « -n V) CO V* o ^_ ^ 0. = -^ eo CO 3 c= « ^> <C3 at ta B> ^ °» eu ra to a O9 eo ^ a* s 1= ca \ *** CO ^ CO to CM v» o' CO to CO 3 =3 13- *•» \ ¥\ A. FIGURE 1. Columnar section ol the major stratigraphic units in northeastern Ohio showing their relative positions in the standard geologic time scale. The Devonian-Mississippian boundary is not known with certainty to lie within the Cleveland Shale. The base of the Mississippian in the northern part of the state is transitional with the Bradford Series of the Devonian System and may lie within the Cleveland Shale (Weller er a/., 1948). -
Late Devonian and Early Mississippian Distal Basin-Margin Sedimentation of Northern Ohio1
Late Devonian and Early Mississippian Distal Basin-Margin Sedimentation of Northern Ohio1 THOMAS L. LEWIS, Department of Geological Sciences, Cleveland State University, Cleveland, OH 44115 ABSTRACT. Clastic sediments, derived from southeastern, eastern and northeastern sources, prograded west- ward into a shallow basin at the northwestern margin of the Appalachian Basin in Late Devonian and Early Mississippian time. The western and northwestern boundary of the basin was the submerged Cincinnati Arch. The marine clastic wedges provided a northwest paleoslope and a distal, gentle shelf-edge margin that controlled directional emplacement of coarse elastics. Rising sea levels coupled with differences in sedimen- tation rates and localized soft-sediment deformation within the basin help explain some features of the Bedford and Berea Formations. The presence of sand-filled mudcracks and flat-topped symmetrical ripple marks in the Berea Formation attest to very shallow water deposition and local subaerial exposure at the time of emplacement of part of the formation. Absence of thick, channel-form deposits eastward suggests loss of section during emergence. OHIO J. SCI. 88 (1): 23-39, 1988 INTRODUCTION The Bedford Formation (Newberry 1870) is the most The Ohio Shale, Bedford, and Berea Formations of lithologically varied formation of the group. It is com- northern Ohio are clastic units which record prograda- prised of gray and red mudshales, siltstone, and very tional and transgressional events during Late Devonian fine-grained sandstone. The Bedford Formation thins and Early Mississippian time. The sequence of sediments both to the east and west and reaches its maximum is characterized by (1) gray mudshale, clayshale, siltstone, thickness in the Cleveland area. -
Erie County 2040 Long Range Transportation Plan 39 CHAPTER 4. REGIONAL PROFILE Introduction: Since the Next US Census Will Not B
CHAPTER 4. REGIONAL PROFILE Introduction: Since the next US Census will not be completed until 2020, much of the data reported in this and other sections of the document are from the 2010 US Census. However, in some cases more recent data was found through the American Community Survey (ACS) which is a nationwide survey completed by the Census Bureau. Unless otherwise noted the 2010 Census and the 2012 American Community Survey (ACS) five year survey were utilized when referring to the Census or ACS. It is also important to note, the Ohio Department of Development (ODOD) county level population control totals will be reflected in the final adopted Transportation Plan and air quality conformity determination and associated travel demand modeling procedures. Any variation from the ODOD county level population control totals, for the Transportation Plan and Conformity Determination will require substantial documentation, including interagency consultation. ODOD population control totals are not required for transportation and land use alternatives scenario planning. 4.1 Existing Conditions Geography: Erie County is one of eight coastal counties situated on the eastern border of the Northwestern Ohio region. Erie County is bounded by Lorain County to the East, Huron County to the South, Sandusky and Ottawa Counties to the West and Lake Erie to the North. Erie County has a land area of 255 square miles with a population density of 301 people per square mile.1 In addition, the county has a water area of 371 square miles with 65 miles of shoreline along the lake and Sandusky Bay.2 The majority of the county consists of cropland (53%) and forest (16%).3 The transportation network in Erie County consists of 26 interstate highway miles, 42 US highway miles and 114 state highway miles.4 There are 622 county, township and municipal road miles, two small commercial airports, two shipping ports and 95 miles of rail line.5 The City of Sandusky, incorporated in 1824, is the largest city in Erie County and serves as the county seat. -
Geology of Fairfield County, Ohio
This dissertation has been 61—5134 microfilmed exactly as received WOLFE, Edward Winslow, 1936- GEOLOGY OF FAIRFIELD COUNTY, OHIO. The Ohio State University, Ph.D., 1961 Geology University Microfilms, Inc., Ann Arbor, Michigan GEOLOGY OF FAIRFIELD COUNTY, OHIO DISSERTATION Presented in Partial Fulfillment of the Requirements for the Degree Doctor of Philosophy in the Graduate School of the Ohio State University By Edward Winslow Wolfe, B. A. The Ohio State University 1961 Approved by Department of Geology ! ACKNOWLEDGMENTS Thanks are due Mr. R. J. Bernhagen, State Geologist, who suggest ed the need for an investigation of the geology of Fairfield County. The writer is particularly indebted to Dr. Aurele La Rooque who di rected the investigation and guided the writer throughout the prepara tion of this report. Many others gave freely of their time in dis cussing with the writer the geology of Fairfield County. Among these, special thanks are due Dr. Jane L. Forsyth of the Ohio Division of Geological Survey, Mr. George J. Franklin, who is presently completing a report on the geology of Licking County, and the writer's colleagues in the Department of Geology at the College of Wooster. The writer thanks several members of the Ohio Division of Geological Survey, in cluding Miss Pauline Smyth, Mr. Karl V. Hoover, and Mr. Harold J. Flint, for their valuable assistance. Most helpful, too, was the as sistance of Mr. Jon S. Galehouse during the summer of i960. The field work was sponsored and financed by the Ohio Division of Geological Survey. Additional financial aid, in the form of a William H. -
The Euclid Bluestone of Northeastern Ohio: Quarrying History, Petrology, and Sedimentology Joseph T
70 INDIANA GEOLOGICAL SURVEY OCCASIONAL PA P ER 67 The Euclid Bluestone of Northeastern Ohio: Quarrying History, Petrology, and Sedimentology Joseph T. Hannibal, Benjamin A. Scherzer, and David B. Saja The Cleveland Museum of Natural History Abstract Ohio. Euclid bluestone was also crushed for use as a com- ponent of concrete, but recently it has been used mainly for Euclid bluestone (the Euclid Member of the Upper De- riprap along the Lake Erie shore and along stream banks, and vonian Bedford Formation) is a dense, well-indurated, very as decorative landscape stone. fine grained sandstone that crops out in northeastern Ohio This paper provides a comprehensive review of the in and near Cleveland. The unit was quarried early in the quarrying history of the Euclid bluestone, documents the nineteenth century, even earlier than documented quarry- last producing quarry, and comments on the petrology and ing of the more famous bluestones of New York State. Eu- sedimentology of the unit on the basis of samples from this clid bluestone was most famous for its use as flagstone for quarry. Brief comparisons also are made to the classic blue- sidewalks. It was used extensively in the Cleveland area, and stones of New York and Pennsylvania. In this paper, the ini- was shipped outside of northeastern Ohio to towns and cit- tial letters of both parts of the name of formal rock units, for ies between Milwaukee and New York and southward as far instance, “Berea Sandstone,” are capitalized, but only the first as Washington, D.C. Most Euclid bluestone quarries were part of informal rock units, for instance, “Euclid bluestone,” closed in the first decades of the twentieth century because are capitalized. -
Bedrock Geology of Michigan
BEDROCK GEOLOGY OF MICHIGAN PLV CHC BEDROCK GEOLOGY OF THE EASTERN UPPER PENNINSULA MAC MACKINAC BRECCIA BBF BOIS BLANC FORMATION GIF GARDEN ISLAND FORMATION BIG BASS ISLAND GROUP SAL CHC SALINA GROUP SID SAINT IGNACE DOLOMITE PLV PAC POINT AUX CHENES SHALE ENG ENGADINE GROUP MQG MANISTIQUE GROUP BBG BURNT BLUFF GROUP NSF CHS CABOT HEAD SHALE MND MANITOULIN DOLOMITE CHC QUS QUEENSTON SHALE FSS BHD BIG HILL DOLOMITE STF AGR STONINGTON FORMATION BBF NSF USM CHC JAC UTICA SHALE MEMBER NSF CSM COLLINGWOOD SHALE MEMBER OBF AVS JAC TRN FSS AGR TRENTON GROUP MUN MGF BRG BLACK RIVER GROUP TMP SCF EVC MGF PDC PRAIRIE DU CHIEN GROUP IIF PDC SAQ CHO NIF BRG TMP PAF NIF TREMPEALEAU FORMATION AGR SCF CSM TRN JAC MGF GDQ JAC MUN USM MUNISING FORMATION AMF AVS MCG BRG AGR NIF AGR BIF STF AGR BHD HEM QUS AGR MGF MND CHS AGR INT BHD MCG BBG BDG DCF BBG BEDROCK GEOLOGY OF THE AVS ENG QUS WESTERN UPPER PENNINSULA PRG RAD MND RAD AVS BBG CHS QUF MQG MAC MACKINAC BRECCIA MQG CG RIF M TMP PAC ENG JAC JACOBSVILLE SANDSTONE BDG CHO FSS FREDA SANDSTONE MAC AGR SID NSF NONESUCH FORMATION SAL ENG GIF CHC COPPER HARBOR CONGLOMERATE MGF BBF INT OBF OAK BLUFF FORMATION BBG BBF DRG BBF PLV PORTAGE LAKE VOLCANICS DRG SCF SIEMENS CREEK FORMATION QUF MQG BLS BBG ENG INT INTRUSIVE QUF QUINNESEC FORMATION MUN TRG DDL PRG PAINT RIVER GROUP RIF RIVERTON IRON FORMATION BIF BIJIKI IRON FORMATION ANT CWT ANT NIF NEGAUNEE IRON FORMATION BER IIF IRONWOOD IRON FORMATION BE DCF DUNN CREEK FORMATION R BED BDG BADWATER GREENSTONE ELL MGF MICHIGAMME FORMATION GDQ GOODRICH QUARTZITE