cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.11828754
title: Global belowground biomass carbon density of trees in the year 2010 – uncertainty

description: This layer represents the uncertainty of the belowground biomass (BGB) carbon (C) density estimates for trees that were used to create the harmonized global BGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since trees may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that trees are assumed to occupy in each grid cell. Grid cells that do not contain trees report a value of zero. As such, taking the root sum of the squared accompanying layers for tree, grass, tundra and crop BGB C will produce the uncertainty layer of the harmonized global BGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828757
title: Global aboveground biomass carbon density of trees in the year 2010

description: This layer represents the aboveground biomass (AGB) carbon (C) density estimates for trees that were used to create the harmonized global AGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since trees may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that trees are assumed to occupy in each grid cell. Grid cells that do not contain trees report a value of zero. As such, taking the pixelwise sum of the accompanying layers for tree, grass, tundra and crop AGB C will produce the harmonized global AGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828760.v1
title: Global aboveground biomass carbon density of tundra vegetation in the year 2010

description: This layer represents the aboveground biomass (AGB) carbon (C) density estimates for tundra vegetation that were used to create the harmonized global AGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since tundra vegetation may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that tundra vegetation is assumed to occupy in each grid cell. Grid cells that do not contain tundra vegetation report a value of zero. As such, taking the pixelwise sum of the accompanying layers for tree, grass, tundra and crop AGB C will produce the harmonized global AGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828754.v1
title: Global belowground biomass carbon density of trees in the year 2010 – uncertainty

description: This layer represents the uncertainty of the belowground biomass (BGB) carbon (C) density estimates for trees that were used to create the harmonized global BGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since trees may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that trees are assumed to occupy in each grid cell. Grid cells that do not contain trees report a value of zero. As such, taking the root sum of the squared accompanying layers for tree, grass, tundra and crop BGB C will produce the uncertainty layer of the harmonized global BGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828757.v1
title: Global aboveground biomass carbon density of trees in the year 2010

description: This layer represents the aboveground biomass (AGB) carbon (C) density estimates for trees that were used to create the harmonized global AGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since trees may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that trees are assumed to occupy in each grid cell. Grid cells that do not contain trees report a value of zero. As such, taking the pixelwise sum of the accompanying layers for tree, grass, tundra and crop AGB C will produce the harmonized global AGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828745
title: Global belowground biomass carbon density of grass in the year 2010 – uncertainty

description: This layer represents the uncertainty of the belowground biomass (BGB) carbon (C) density estimates for grass that were used to create the harmonized global BGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since grass may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that grass is assumed to occupy in each grid cell. Grid cells that do not contain grass report a value of zero. As such, taking the root sum of the squared accompanying layers for tree, grass, tundra and crop BGB C will produce the uncertainty layer of the harmonized global BGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828751
title: Global belowground biomass carbon density of trees in the year 2010

description: This layer represents the belowground biomass (BGB) carbon (C) density estimates for trees that were used to create the harmonized global BGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since trees may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that trees are assumed to occupy in each grid cell. Grid cells that do not contain trees report a value of zero. As such, taking the pixelwise sum of the accompanying layers for tree, grass, tundra and crop BGB C will produce the harmonized global BGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828748
title: Global belowground biomass carbon density of grass in the year 2010

description: This layer represents the belowground biomass (BGB) carbon (C) density estimates for grass that were used to create the harmonized global BGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since grass may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that grass is assumed to occupy in each grid cell. Grid cells that do not contain grass report a value of zero. As such, taking the pixelwise sum of the accompanying layers for tree, grass, tundra and crop BGB C will produce the harmonized global BGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828751.v1
title: Global belowground biomass carbon density of trees in the year 2010

description: This layer represents the belowground biomass (BGB) carbon (C) density estimates for trees that were used to create the harmonized global BGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since trees may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that trees are assumed to occupy in each grid cell. Grid cells that do not contain trees report a value of zero. As such, taking the pixelwise sum of the accompanying layers for tree, grass, tundra and crop BGB C will produce the harmonized global BGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828742
title: Global aboveground biomass carbon density of trees in the year 2010 – uncertainty

description: This layer represents the uncertainty of the aboveground biomass (AGB) carbon (C) density estimates for trees that were used to create the harmonized global AGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since trees may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that trees are assumed to occupy in each grid cell. Grid cells that do not contain trees report a value of zero. As such, taking the root sum of the squared accompanying layers for tree, grass, tundra and crop AGB C will produce the uncertainty layer of the harmonized global AGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828745.v1
title: Global belowground biomass carbon density of grass in the year 2010 – uncertainty

description: This layer represents the uncertainty of the belowground biomass (BGB) carbon (C) density estimates for grass that were used to create the harmonized global BGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since grass may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that grass is assumed to occupy in each grid cell. Grid cells that do not contain grass report a value of zero. As such, taking the root sum of the squared accompanying layers for tree, grass, tundra and crop BGB C will produce the uncertainty layer of the harmonized global BGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828748.v1
title: Global belowground biomass carbon density of grass in the year 2010

description: This layer represents the belowground biomass (BGB) carbon (C) density estimates for grass that were used to create the harmonized global BGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since grass may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that grass is assumed to occupy in each grid cell. Grid cells that do not contain grass report a value of zero. As such, taking the pixelwise sum of the accompanying layers for tree, grass, tundra and crop BGB C will produce the harmonized global BGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828736
title: Global belowground biomass carbon density of crops in the year 2010 – uncertainty

description: This layer represents the uncertainty of the belowground biomass (BGB) carbon (C) density estimates for crops that were used to create the harmonized global BGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since crops may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that crops are assumed to occupy in each grid cell. Grid cells that do not contain crops report a value of zero. As such, taking the root sum of the squared accompanying layers for tree, grass, tundra and crop BGB C will produce the uncertainty layer of the harmonized global BGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828739
title: Global aboveground biomass carbon density of grass in the year 2010 – uncertainty

description: This layer represents the uncertainty of the aboveground biomass (AGB) carbon (C) density estimates for grass that were used to create the harmonized global AGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since grass may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that grass is assumed to occupy in each grid cell. Grid cells that do not contain grass report a value of zero. As such, taking the root sum of the squared accompanying layers for tree, grass, tundra and crop AGB C will produce the uncertainty layer of the harmonized global AGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828742.v1
title: Global aboveground biomass carbon density of trees in the year 2010 – uncertainty

description: This layer represents the uncertainty of the aboveground biomass (AGB) carbon (C) density estimates for trees that were used to create the harmonized global AGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since trees may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that trees are assumed to occupy in each grid cell. Grid cells that do not contain trees report a value of zero. As such, taking the root sum of the squared accompanying layers for tree, grass, tundra and crop AGB C will produce the uncertainty layer of the harmonized global AGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828736.v1
title: Global belowground biomass carbon density of crops in the year 2010 – uncertainty

description: This layer represents the uncertainty of the belowground biomass (BGB) carbon (C) density estimates for crops that were used to create the harmonized global BGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since crops may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that crops are assumed to occupy in each grid cell. Grid cells that do not contain crops report a value of zero. As such, taking the root sum of the squared accompanying layers for tree, grass, tundra and crop BGB C will produce the uncertainty layer of the harmonized global BGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828727
title: Global aboveground biomass carbon density of grass in the year 2010

description: This layer represents the aboveground biomass (AGB) carbon (C) density estimates for grass that were used to create the harmonized global AGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since grass may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that grass is assumed to occupy in each grid cell. Grid cells that do not contain grass report a value of zero. As such, taking the pixelwise sum of the accompanying layers for tree, grass, tundra and crop AGB C will produce the harmonized global AGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828730
title: Global aboveground biomass carbon density of crops in the year 2010 – uncertainty

description: This layer represents the uncertainty of the aboveground biomass (AGB) carbon (C) density estimates for crops that were used to create the harmonized global AGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since crops may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that crops are assumed to occupy in each grid cell. Grid cells that do not contain crops report a value of zero. As such, taking the pixelwise root sum of the squared accompanying layers for tree, grass, tundra and crop AGB C will produce the uncertainty layer of the harmonized global AGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828739.v1
title: Global aboveground biomass carbon density of grass in the year 2010 – uncertainty

description: This layer represents the uncertainty of the aboveground biomass (AGB) carbon (C) density estimates for grass that were used to create the harmonized global AGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since grass may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that grass is assumed to occupy in each grid cell. Grid cells that do not contain grass report a value of zero. As such, taking the root sum of the squared accompanying layers for tree, grass, tundra and crop AGB C will produce the uncertainty layer of the harmonized global AGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828724
title: Global belowground biomass carbon density of crops in the year 2010

description: This layer represents the belowground biomass (BGB) carbon (C) density estimates for crops that were used to create the harmonized global BGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since crops may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that crops are assumed to occupy in each grid cell. Grid cells that do not contain crops report a value of zero. As such, taking the pixelwise sum of the accompanying layers for tree, grass, tundra and crop BGB C will produce the harmonized global BGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828730.v1
title: Global aboveground biomass carbon density of crops in the year 2010 – uncertainty

description: This layer represents the uncertainty of the aboveground biomass (AGB) carbon (C) density estimates for crops that were used to create the harmonized global AGB C density map of Spawn et al. (2020). It has been scaled by 10 to reduce file size and should by multiplied by 0.1 before analysis to attain units of megagrams C per hectare (MgC/ha). Since crops may coexist with other vegetation types within the extent of a given grid cell, estimates in this layer have been proportionally adjusted to account for the relative spatial extent that crops are assumed to occupy in each grid cell. Grid cells that do not contain crops report a value of zero. As such, taking the pixelwise root sum of the squared accompanying layers for tree, grass, tundra and crop AGB C will produce the uncertainty layer of the harmonized global AGB C density map of Spawn et al. (2020).
DOI: 10.6084/m9.figshare.11828706
title: Tree files (as newick and pdf files) and corresponding alignments for "Insights into the origin of metazoan multicellularity from predatory unicellular relatives of animals"

description: "alpha_amylase_1_LG_I_G4_1000UFboot_newick.tre": raw tree file in newick format of alpha amylase 1, corresponding to Table 1. Tree reconstruction performed with IQ-TREE (selected model based on ModelFinder: LG+I+G4, branch support was assessed with 1000 ultrafast bootstrap replicates).<br>"alpha_amylase_1_LG_I_G4_1000UFboot.tre.pdf": unrooted tree of alpha amylase 1 as pdf file, corresponding to Table 1. Colored by lineage.<br>"alpha_amylase_1_trimal0.8.fasta": trimmed alignment used for tree reconstruction of alpha amylase 1<br>"alpha_amylases_2_3_4_5_LG_R10_1000UFboot_newick.tre": raw tree file in newick format of alpha amylases 2-5, corresponding to Table 1. Tree reconstruction performed with IQ-TREE (selected model based on ModelFinder: LG+R10, branch support was assessed with 1000 ultrafast bootstrap replicates).<br>"alpha_amylases_2_3_4_5_LG_R10_1000UFboot.tre.pdf": unrooted tree of alpha amylases 2-5 as pdf file, corresponding to Table 1. Colored by lineage.<br>"alpha_amylases_2_3_4_5_trimal0.8.fasta": trimmed alignment used for tree reconstruction of alpha amylases 2-5<br>"alpha_glucosidases_1_2_3_4_LG_R10_1000UFboot_newick.tre": raw tree file in newick format of alpha glucosidases 1-4, corresponding to Table 1. Tree reconstruction performed with IQ-TREE (selected model based on ModelFinder: LG+R10, branch support was assessed with 1000 ultrafast bootstrap replicates).<br>"alpha_glucosidases_1_2_3_4_LG_R10_1000UFboot.tre.pdf": unrooted tree of alpha glucosidases 1-4 as pdf file, corresponding to Table 1. Colored by lineage.<br>"alpha_glucosidases_1_2_3_4_trimal0.8.fasta": trimmed alignment used for tree reconstruction of alpha glucosidases 1-4<br>"glycogen_debranching_enzyme_AGL_LG_R7_1000UFboot_newick.tre": raw tree file in newick format of glycogen debranching enzyme AGL, corresponding to Table 1. Tree reconstruction performed with IQ-TREE (selected model based on ModelFinder: LG+R7, branch support was assessed with 1000 ultrafast bootstrap replicates).<br>"glycogen_debranching_enzyme_AGL_LG_R7_1000UFboot.tre.pdf": unrooted tree of glycogen debranching enzyme AGL as pdf file, corresponding to Table 1. Colored by lineage.<br>"glycogen_debranching_enzyme_AGL_trimal0.8.fasta": trimmed alignment used for tree reconstruction of glycogen debranching enzyme AGL<br>"glycogen_phosphorylase_PYG_LG_R10_1000UFboot_newick.tre": raw tree file in newick format of glycogen phosphorylase PYG, corresponding to Table 1. Tree reconstruction performed with IQ-TREE (selected model based on ModelFinder: LG+R10, branch support was assessed with 1000 ultrafast bootstrap replicates).<br>"glycogen_phosphorylase_PYG_LG_R10_1000UFboot.tre.pdf": unrooted tree of glycogen phosphorylase PYG as pdf file, corresponding to Table 1. Colored by lineage.<br>"glycogen_phosphorylase_PYG_trimal0.8.fasta": trimmed alignment used for tree reconstruction of glycogen phosphorylase PYG