logging in or signing up 18 Early Paleozoic Misree Download Post to : URL : Related Presentations : Share Add to Flag Embed Email Send to Blogs and Networks Add to Channel Uploaded from authorPOINTLite Insert YouTube videos in PowerPont slides with aS Desktop Copy embed code: (To copy code, click on the text box) Embed: URL: Thumbnail: WordPress Embed Customize Embed The presentation is successfully added In Your Favorites. Views: 700 Category: Entertainment License: All Rights Reserved Like it (0) Dislike it (0) Added: October 02, 2007 This Presentation is Public Favorites: 0 Presentation Description No description available. Comments Posting comment... Premium member Presentation Transcript EARLY PALEOZOIC: EARLY PALEOZOIC Cambrian 544-505 Ordovician 505-441 Silurian 441-418ORDOVICIAN: ORDOVICIAN Baltica Early moved south Late - moved north toward LaurentiaORDOVICIAN: ORDOVICIAN Baltica Early moved south Late - moved north toward Laurentia Oceans Early regression Mid- to Late transgressions againORDOVICIAN: ORDOVICIAN Baltica Early moved south Late - moved north toward Laurentia Oceans Early regression Mid- to Late transgressions again North America Taconic orogenySILURIAN: SILURIAN Baltica - to equator and headed northSILURIAN: SILURIAN Baltica - to equator and headed north Laurentia - rotatingSILURIAN: SILURIAN Baltica - to equator and headed north Laurentia rotating Taconic Mountains eroding Acadian-Caledonian Orogeny beginningSILURIAN: SILURIAN Baltica - to equator and headed north Laurentia rotating Taconic Mountains eroding Acadian-Caledonian Orogeny beginning Siberia - left equator - headed northSILURIAN: SILURIAN Baltica - to equator and headed north Laurentia rotating Taconic Mountains eroding Acadian-Caledonian Orogeny beginning Siberia - left equator - headed north glaciation at high latitudes (over 65 degrees) in southNorth American Orogeny: North American Orogeny Taconic Orogeny - Ordovician erosion produced Queenston DeltaNorth American Orogeny: North American Orogeny Taconic Orogeny - Ordovician erosion produced Queenston Delta Acadian (Caledonian) Orogeny - Silurian Catskill DeltaSynclines of Early Paleozoic: Synclines of Early Paleozoic Franklinian - northern CanadaSynclines of Early Paleozoic: Synclines of Early Paleozoic Franklinian - northern Canada Cordilleran - western North AmericaEarly Paleozoic: Early PaleozoicEarly Paleozoic: Early PaleozoicLATE PALEOZOIC: LATE PALEOZOIC Permian 245-286 Pennsylvanian 286-320 Mississippian 320-362 Devonian 362-418LATE DEVONIAN: LATE DEVONIAN Baltica and Laurentia collision continued forming LaurussiaLATE DEVONIAN: LATE DEVONIAN Baltica and Laurentia collision continued forming Laurussia Siberia closing on north Laurussia Ellesmere Orogeny (Franklinian)LATE DEVONIAN: LATE DEVONIAN Baltica and Laurentia collision continued forming Laurussia Siberia closing on north Laurussia Ellesmere orogeny (Franklinian) Antler orogeny in western N. AmericaANTLER OROGENY: ANTLER OROGENY Antler Orogeny Idaho, Nevada, (California)ANTLER OROGENY: ANTLER OROGENY Antler Orogeny Idaho, Nevada, (California) Collisions of N. America with island arcs in Devonian-Mississippian (Pennsylvanian)MISSISSIPPIAN: MISSISSIPPIAN Mississippian used in N. America - lower Carboniferous in other places MISSISSIPPIAN: MISSISSIPPIAN Mississippian used in N. America - lower Carboniferous in other places widespread epicontinental seasMISSISSIPPIAN: MISSISSIPPIAN Mississippian used in N. America - lower Carboniferous in other places widespread epicontinental seas uplift again in Appalachian area (Baltica)MISSISSIPPIAN: MISSISSIPPIAN Mississippian used in N. America - lower Carboniferous in other places widespread epicontinental seas uplift again in Appalachian area (Baltica) Antler Orogeny continued from Devonian - more island arcsMISSISSIPPIAN: MISSISSIPPIAN Mississippian used in N. America - lower Carboniferous in other places widespread epicontinental seas uplift again in Appalachian area (Baltica) Antler Orogeny continued from Devonian - more island arcs Texas, Oklahoma, Alabama - Africa and S. America approachingPENNSYLVANIAN: PENNSYLVANIAN Alleghenian Orogeny - continued uplift of Appalachian areaPENNSYLVANIAN: PENNSYLVANIAN Alleghenian Orogeny - continued uplift of Appalachian area Ouachita Orogeny - syncline in Oklahoma, Arkansas, Texas - collision produced mountains in PennsylvanianPENNSYLVANIAN: PENNSYLVANIAN Alleghenian Orogeny - continued uplift of Appalachian area Ouachita Orogeny - syncline in Oklahoma, Arkansas, Texas - collision produced mountains in Pennsylvanian deltas and coal swamps in eastern North America and EuropeCOAL DEPOSITION: COAL DEPOSITION sand, mud, etc. from Appalachian and Ouachita MountainsCOAL DEPOSITION: COAL DEPOSITION sand, mud, etc. from Appalachian and Ouachita Mountains numerous small oscillations in sea levelCOAL DEPOSITION: COAL DEPOSITION sand, mud, etc. from Appalachian and Ouachita Mountains numerous small oscillations in sea level coal formed from accumulated vegetation in lagoons and coastal swamps - similar to present day Dismal Swamp (VA, NC) or backwaters in LACOAL DEPOSITION: COAL DEPOSITION sand, mud, etc. from Appalachian and Ouachita Mountains numerous small oscillations in sea level coal formed from accumulated vegetation in lagoons and coastal swamps - similar to present day Dismal Swamp (VA, NC) or backwaters in LA produced coal fields in Pennsylvania, West Virginia, Illinois, etc. and EuropeCOAL DEPOSITION: COAL DEPOSITION forests covered swampy land - vegetation died, sometimes killed by floodingCOAL DEPOSITION: COAL DEPOSITION forests covered swampy land plants covered with water and sediment - low oxygen - protected from decompositionCOAL DEPOSITION: COAL DEPOSITION forests covered swampy land plants covered with water and sediment - low oxygen - protected from decomposition carbonization or distillation - leaves carbonCOAL DEPOSITION: COAL DEPOSITION forests covered swampy land plants covered with water and sediment - low oxygen - protected from decomposition carbonization or distillation - leaves carbon (plant peat lignite bituminous anthracite)GLACIATION IN GONDWANA: GLACIATION IN GONDWANA in South America at least 10 glacial episodes (up to 17 episodes)GLACIATION IN GONDWANA: GLACIATION IN GONDWANA in South America at least 10 glacial episodes (up to 17 episodes) slow movement of Gondwana over South PoleGLACIATION IN GONDWANA: GLACIATION IN GONDWANA in South America at least 10 glacial episodes (up to 17 episodes) slow movement of Gondwana over South Pole Africa - Late Devonian and Carboniferous South America - Mississippian - Permian Australia - PermianCORDILLERA: CORDILLERA western North America eastward moving island arcs collideCORDILLERA: CORDILLERA western North America eastward moving island arcs collide Mississippian - Antler Orogeny Permian and later - Sonoma Orogeny You do not have the permission to view this presentation. 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18 Early Paleozoic Misree Download Post to : URL : Related Presentations : Share Add to Flag Embed Email Send to Blogs and Networks Add to Channel Uploaded from authorPOINTLite Insert YouTube videos in PowerPont slides with aS Desktop Copy embed code: (To copy code, click on the text box) Embed: URL: Thumbnail: WordPress Embed Customize Embed The presentation is successfully added In Your Favorites. Views: 700 Category: Entertainment License: All Rights Reserved Like it (0) Dislike it (0) Added: October 02, 2007 This Presentation is Public Favorites: 0 Presentation Description No description available. Comments Posting comment... Premium member Presentation Transcript EARLY PALEOZOIC: EARLY PALEOZOIC Cambrian 544-505 Ordovician 505-441 Silurian 441-418ORDOVICIAN: ORDOVICIAN Baltica Early moved south Late - moved north toward LaurentiaORDOVICIAN: ORDOVICIAN Baltica Early moved south Late - moved north toward Laurentia Oceans Early regression Mid- to Late transgressions againORDOVICIAN: ORDOVICIAN Baltica Early moved south Late - moved north toward Laurentia Oceans Early regression Mid- to Late transgressions again North America Taconic orogenySILURIAN: SILURIAN Baltica - to equator and headed northSILURIAN: SILURIAN Baltica - to equator and headed north Laurentia - rotatingSILURIAN: SILURIAN Baltica - to equator and headed north Laurentia rotating Taconic Mountains eroding Acadian-Caledonian Orogeny beginningSILURIAN: SILURIAN Baltica - to equator and headed north Laurentia rotating Taconic Mountains eroding Acadian-Caledonian Orogeny beginning Siberia - left equator - headed northSILURIAN: SILURIAN Baltica - to equator and headed north Laurentia rotating Taconic Mountains eroding Acadian-Caledonian Orogeny beginning Siberia - left equator - headed north glaciation at high latitudes (over 65 degrees) in southNorth American Orogeny: North American Orogeny Taconic Orogeny - Ordovician erosion produced Queenston DeltaNorth American Orogeny: North American Orogeny Taconic Orogeny - Ordovician erosion produced Queenston Delta Acadian (Caledonian) Orogeny - Silurian Catskill DeltaSynclines of Early Paleozoic: Synclines of Early Paleozoic Franklinian - northern CanadaSynclines of Early Paleozoic: Synclines of Early Paleozoic Franklinian - northern Canada Cordilleran - western North AmericaEarly Paleozoic: Early PaleozoicEarly Paleozoic: Early PaleozoicLATE PALEOZOIC: LATE PALEOZOIC Permian 245-286 Pennsylvanian 286-320 Mississippian 320-362 Devonian 362-418LATE DEVONIAN: LATE DEVONIAN Baltica and Laurentia collision continued forming LaurussiaLATE DEVONIAN: LATE DEVONIAN Baltica and Laurentia collision continued forming Laurussia Siberia closing on north Laurussia Ellesmere Orogeny (Franklinian)LATE DEVONIAN: LATE DEVONIAN Baltica and Laurentia collision continued forming Laurussia Siberia closing on north Laurussia Ellesmere orogeny (Franklinian) Antler orogeny in western N. AmericaANTLER OROGENY: ANTLER OROGENY Antler Orogeny Idaho, Nevada, (California)ANTLER OROGENY: ANTLER OROGENY Antler Orogeny Idaho, Nevada, (California) Collisions of N. America with island arcs in Devonian-Mississippian (Pennsylvanian)MISSISSIPPIAN: MISSISSIPPIAN Mississippian used in N. America - lower Carboniferous in other places MISSISSIPPIAN: MISSISSIPPIAN Mississippian used in N. America - lower Carboniferous in other places widespread epicontinental seasMISSISSIPPIAN: MISSISSIPPIAN Mississippian used in N. America - lower Carboniferous in other places widespread epicontinental seas uplift again in Appalachian area (Baltica)MISSISSIPPIAN: MISSISSIPPIAN Mississippian used in N. America - lower Carboniferous in other places widespread epicontinental seas uplift again in Appalachian area (Baltica) Antler Orogeny continued from Devonian - more island arcsMISSISSIPPIAN: MISSISSIPPIAN Mississippian used in N. America - lower Carboniferous in other places widespread epicontinental seas uplift again in Appalachian area (Baltica) Antler Orogeny continued from Devonian - more island arcs Texas, Oklahoma, Alabama - Africa and S. America approachingPENNSYLVANIAN: PENNSYLVANIAN Alleghenian Orogeny - continued uplift of Appalachian areaPENNSYLVANIAN: PENNSYLVANIAN Alleghenian Orogeny - continued uplift of Appalachian area Ouachita Orogeny - syncline in Oklahoma, Arkansas, Texas - collision produced mountains in PennsylvanianPENNSYLVANIAN: PENNSYLVANIAN Alleghenian Orogeny - continued uplift of Appalachian area Ouachita Orogeny - syncline in Oklahoma, Arkansas, Texas - collision produced mountains in Pennsylvanian deltas and coal swamps in eastern North America and EuropeCOAL DEPOSITION: COAL DEPOSITION sand, mud, etc. from Appalachian and Ouachita MountainsCOAL DEPOSITION: COAL DEPOSITION sand, mud, etc. from Appalachian and Ouachita Mountains numerous small oscillations in sea levelCOAL DEPOSITION: COAL DEPOSITION sand, mud, etc. from Appalachian and Ouachita Mountains numerous small oscillations in sea level coal formed from accumulated vegetation in lagoons and coastal swamps - similar to present day Dismal Swamp (VA, NC) or backwaters in LACOAL DEPOSITION: COAL DEPOSITION sand, mud, etc. from Appalachian and Ouachita Mountains numerous small oscillations in sea level coal formed from accumulated vegetation in lagoons and coastal swamps - similar to present day Dismal Swamp (VA, NC) or backwaters in LA produced coal fields in Pennsylvania, West Virginia, Illinois, etc. and EuropeCOAL DEPOSITION: COAL DEPOSITION forests covered swampy land - vegetation died, sometimes killed by floodingCOAL DEPOSITION: COAL DEPOSITION forests covered swampy land plants covered with water and sediment - low oxygen - protected from decompositionCOAL DEPOSITION: COAL DEPOSITION forests covered swampy land plants covered with water and sediment - low oxygen - protected from decomposition carbonization or distillation - leaves carbonCOAL DEPOSITION: COAL DEPOSITION forests covered swampy land plants covered with water and sediment - low oxygen - protected from decomposition carbonization or distillation - leaves carbon (plant peat lignite bituminous anthracite)GLACIATION IN GONDWANA: GLACIATION IN GONDWANA in South America at least 10 glacial episodes (up to 17 episodes)GLACIATION IN GONDWANA: GLACIATION IN GONDWANA in South America at least 10 glacial episodes (up to 17 episodes) slow movement of Gondwana over South PoleGLACIATION IN GONDWANA: GLACIATION IN GONDWANA in South America at least 10 glacial episodes (up to 17 episodes) slow movement of Gondwana over South Pole Africa - Late Devonian and Carboniferous South America - Mississippian - Permian Australia - PermianCORDILLERA: CORDILLERA western North America eastward moving island arcs collideCORDILLERA: CORDILLERA western North America eastward moving island arcs collide Mississippian - Antler Orogeny Permian and later - Sonoma Orogeny