SmithRobertBotanyPlantPathologyRapidMethodLandscapeSupplementaryMaterialTable S1.xlsx

Mat-forming “ground layers” of mosses and lichens often have functional impacts disproportionate to their biomass, and are responsible for sequestering one-third of the world's terrestrial carbon as they regulate water tables, cool soils and inhibit microbial decomposition. Without reliable ass...

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Main Authors: Smith, Robert J., Benavides, Juan C., Jovan, Sarah, Amacher, Michael, McCune, Bruce
Language:unknown
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Online Access:https://ir.library.oregonstate.edu/concern/articles/gq67js86m
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spelling ftoregonstate:ir.library.oregonstate.edu:gq67js86m 2024-04-14T08:08:25+00:00 SmithRobertBotanyPlantPathologyRapidMethodLandscapeSupplementaryMaterialTable S1.xlsx Smith, Robert J. Benavides, Juan C. Jovan, Sarah Amacher, Michael McCune, Bruce https://ir.library.oregonstate.edu/concern/articles/gq67js86m unknown https://ir.library.oregonstate.edu/concern/articles/gq67js86m Copyright Not Evaluated ftoregonstate 2024-03-21T15:47:26Z Mat-forming “ground layers” of mosses and lichens often have functional impacts disproportionate to their biomass, and are responsible for sequestering one-third of the world's terrestrial carbon as they regulate water tables, cool soils and inhibit microbial decomposition. Without reliable assessment tools, the potential effects of climate and land use changes on these functions remain unclear; therefore, we implemented a novel “Ground Layer Indicator” method as part of the U.S.D.A. Forest Inventory and Analysis (FIA) program. Non-destructive depth and cover measurements were used to estimate biomass, carbon and nitrogen content for nine moss and lichen functional groups among eight contrasted habitat types in Pacific Northwest and subarctic U.S.A. (N = 81 sites). Ground layer cover, volume, standing biomass, carbon content and functional group richness were greater in boreal forest and tundra habitats of Alaska compared to Oregon forest and steppe. Biomass of up to 22769 ± 2707 kg ha⁻¹ (mean ± SE) in upland Picea mariana forests was nearly double other reports, likely because our method included viable, non-photosynthetic tissues. Functional group richness, which did not directly correspond with biomass, was greatest in lowland Picea mariana forests (7.1 ± 0.4 functional groups per site). Bootstrap resampling revealed that thirty-two microplots per site were adequate for meeting data quality objectives. Here we present a non-destructive, repeatable and efficient method (sampling time: ca. 60 min per site) for gauging ground layer functions and evaluating responses to ecosystem changes. High biomass and functional distinctiveness in Alaskan ground layers highlight the need for increased attention to currently under-sampled boreal and arctic regions, which are projected to be among the most active responders to climate change. Keywords: land-use change, soil nutrient cycles, boreal forests, climate change, Biomass, Forest Inventory and Analysis program, bryophyte and lichen ecology, ecosystem functions, carbon ... Other/Unknown Material Arctic Climate change Subarctic Tundra Alaska ScholarsArchive@OSU (Oregon State University) Arctic Pacific
institution Open Polar
collection ScholarsArchive@OSU (Oregon State University)
op_collection_id ftoregonstate
language unknown
description Mat-forming “ground layers” of mosses and lichens often have functional impacts disproportionate to their biomass, and are responsible for sequestering one-third of the world's terrestrial carbon as they regulate water tables, cool soils and inhibit microbial decomposition. Without reliable assessment tools, the potential effects of climate and land use changes on these functions remain unclear; therefore, we implemented a novel “Ground Layer Indicator” method as part of the U.S.D.A. Forest Inventory and Analysis (FIA) program. Non-destructive depth and cover measurements were used to estimate biomass, carbon and nitrogen content for nine moss and lichen functional groups among eight contrasted habitat types in Pacific Northwest and subarctic U.S.A. (N = 81 sites). Ground layer cover, volume, standing biomass, carbon content and functional group richness were greater in boreal forest and tundra habitats of Alaska compared to Oregon forest and steppe. Biomass of up to 22769 ± 2707 kg ha⁻¹ (mean ± SE) in upland Picea mariana forests was nearly double other reports, likely because our method included viable, non-photosynthetic tissues. Functional group richness, which did not directly correspond with biomass, was greatest in lowland Picea mariana forests (7.1 ± 0.4 functional groups per site). Bootstrap resampling revealed that thirty-two microplots per site were adequate for meeting data quality objectives. Here we present a non-destructive, repeatable and efficient method (sampling time: ca. 60 min per site) for gauging ground layer functions and evaluating responses to ecosystem changes. High biomass and functional distinctiveness in Alaskan ground layers highlight the need for increased attention to currently under-sampled boreal and arctic regions, which are projected to be among the most active responders to climate change. Keywords: land-use change, soil nutrient cycles, boreal forests, climate change, Biomass, Forest Inventory and Analysis program, bryophyte and lichen ecology, ecosystem functions, carbon ...
author Smith, Robert J.
Benavides, Juan C.
Jovan, Sarah
Amacher, Michael
McCune, Bruce
spellingShingle Smith, Robert J.
Benavides, Juan C.
Jovan, Sarah
Amacher, Michael
McCune, Bruce
SmithRobertBotanyPlantPathologyRapidMethodLandscapeSupplementaryMaterialTable S1.xlsx
author_facet Smith, Robert J.
Benavides, Juan C.
Jovan, Sarah
Amacher, Michael
McCune, Bruce
author_sort Smith, Robert J.
title SmithRobertBotanyPlantPathologyRapidMethodLandscapeSupplementaryMaterialTable S1.xlsx
title_short SmithRobertBotanyPlantPathologyRapidMethodLandscapeSupplementaryMaterialTable S1.xlsx
title_full SmithRobertBotanyPlantPathologyRapidMethodLandscapeSupplementaryMaterialTable S1.xlsx
title_fullStr SmithRobertBotanyPlantPathologyRapidMethodLandscapeSupplementaryMaterialTable S1.xlsx
title_full_unstemmed SmithRobertBotanyPlantPathologyRapidMethodLandscapeSupplementaryMaterialTable S1.xlsx
title_sort smithrobertbotanyplantpathologyrapidmethodlandscapesupplementarymaterialtable s1.xlsx
url https://ir.library.oregonstate.edu/concern/articles/gq67js86m
geographic Arctic
Pacific
geographic_facet Arctic
Pacific
genre Arctic
Climate change
Subarctic
Tundra
Alaska
genre_facet Arctic
Climate change
Subarctic
Tundra
Alaska
op_relation https://ir.library.oregonstate.edu/concern/articles/gq67js86m
op_rights Copyright Not Evaluated
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