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Data from: Bioturbation by mammals and fire interact to alter ecosystem-level nutrient dynamics in longleaf pine forests
负责人:
关键词:
disturbance;Geomys pinetus;burrowing mammals;longleaf pine forest;Litter decomposition;nitrogen cycle;phosphorus cycle;Pinus palustris;pocket gophers;fire;ecosystem engineers;Bioturbation;Holocene;Geomys
DOI:
doi:10.5061/dryad.3k0m625
摘要:
. We evaluated our hypothesis by measuring how litter burial alters decomposition and N and phosphorus (P) turnover of longleaf pine and turkey oak (Quercus laevis
Data from: Quantifying team cooperation through intrinsic multi-scale measures: respiratory and cardiac synchronisation in choir singers and surgical
负责人:
关键词:
surgical cooperation;coherence;heart rate variability;multivariate empirical mode decomposition;synchrony in singers;multivariate synchrosqueezing transform
DOI:
doi:10.5061/dryad.80cv0
摘要:
and nonstationary multivariate signals. This is achieved based on a combination of noise-assisted multivariate empirical mode decomposition (NA-MEMD
Data from: Dispersal syndromes can impact ecosystem functioning in spatially structured freshwater populations
负责人:
关键词:
metapopulation;Gammarus fossarum;Dikerogammarus villosus;Dispersal;Nonrandom dispersal;Alnus glutinosa;leaf litter;decomposition;amphipods;metacommunity;Freshwater;Holocene
DOI:
doi:10.5061/dryad.8b9j040
摘要:
ve G. fossarum, after adjusting for differences in organismal size. Given that leaf litter decomposition is a key function in aquatic ecosystems, and the ra
Data from: Decaying of Artemia salina in clay colloids: 14-month experimental formation of subfossils
负责人:
关键词:
preservation;Cambrian;Artemia salina;Lagerstatten
DOI:
doi:10.5061/dryad.qj728
摘要:
. Decomposition in the clay-colloidal solution established highly heterogeneous acidic conditions, with the lowest pH typically found in the vicinity of the buried
Data from: Animal-mediated organic matter transformation: aquatic insects as a source of microbially bioavailable organic nutrients and energy
负责人:
Parr, Thomas
关键词:
biogeochemical cycling brown food web consumer nutrient dynamics dissolved organic carbon dissolved organic nitrogen organic matter decomposition microbial ecosystem
DOI:
doi:10.5061/dryad.ts8fd6m
摘要:
ared it to the C excreted by invertebrates. 3. Individual excretion rates and excretion composition varied with body size, taxonomy, and feeding guild. The estimated avera
Data from: Fine root dynamics in lodgepole pine and white spruce stands along productivity gradients in reclaimed oil sands sites
负责人:
关键词:
DOI:
doi:10.5061/dryad.m1s46
摘要:
n surface area, total root biomass, and rates of root production, turnover, and decomposition) were assessed from May to October 2011 and 2012 using sequenti
Data from: Disentangling relationships between plant diversity and decomposition processes under forest restoration
负责人:
关键词:
DOI:
doi:10.5061/dryad.7775d
摘要:
e direct effects of tree diversity on below-ground functions such as decomposition rate and litter stabilization. However, once the diversities of understorey
Data from: Plant functional traits and environmental conditions shape community assembly and ecosystem functioning during restoration
负责人:
关键词:
Cyperus lupulinus;Monarda fistulosa;Trifolium arvense;Carex blanda;Parthenocissus quinquefolia;Vitis;Senna hebecarpa;Symphyotrichum puniceum;Rubus allegheniensis;Elymus repens;Potentilla argentea;Achillea millefolium;biodiversity-ecosystem function;Prunus;Pycnanthemum virginianum;Helianthus giganteus;Pyrus calleryana;Juncus tenuis;Hypochaeris radicata;Desmodium obtusum;Community Ecology;Rubus occidentalis;Coreopsis lanceolata;Lupinus perennis;response-effect trait framework;trait-based assembly;Saponaria officinalis;Berteroa incana;Celastrus orbiculatus;Ulmus pumila;Desmodium paniculatum;Toxicodendron radicans;Desmodium ciliare;Cirsium arvense;Eryngium yuccifolium;Zizia aptera;Zizia aurea;Arnoglossum atriplicifolium;Hypericum punctatum;Silphium perfoliatum;Lespedeza virginica;Daucus carota;Echinacea purpurea;Geum canadense;Rhamnus cathartica;Poa compressa;Rudbeckia triloba;Symphyotrichum laeve;Aquilegia canadensis;Sorghastrum nutans;Vernonia;Erigeron;Carex bicknellii;Echinacea pallida;Fallopia convolvulus;Trifolium pratense;Verbena hastata;Fraxinus;Rhus;Symphyotrichum novae angliae;Solidago rigida;Asclepias verticillata;Oenothera biennis;Taraxacum officinale;Rumex crispus;Onoclea sensibilis;Solanum carolinense;Agastache nepetoides;Lactuca canadensis;Trifolium repens;Helianthus mollis;structural equation modeling;Tradescantia ohiensis;Pseudognaphalium obtusifolium;Barbarea vulgaris;Rumex acetosella;Carex swanii;Asclepias tuberosa;Panicum virgatum;grassland;Baptisia lactea;Apocynum cannabinum;Coreopsis palmata;Acer;Chenopodium album;Dalea purpurea;Agastache scrophulariifolia;Chamaecrista fasciculata;Penstemon digitalis;Elymus virginicus;Poa pratensis;Cerastium;Melilotus;Dactylis glomerata;Elaeagnus umbellata;Elymus canadensis;Urtica dioica;community weighted means;Botrychium;Dianthus armeria;Tridens flavus;Euphorbia corollata;Allium vineale;Oxalis;Ratibida pinnata;Solidago canadensis;Agrostis gigantea;Medicago lupulina;Morus alba;Solidago juncea;Verbena stricta;Acalypha virginica;Ambrosia psilostachya;Andropogon gerardii;Rubus flagellaris;Ecological restoration;Agrostis hyemalis;Bromus inermis;Rosa multiflora;Potentilla simplex;Viola;Sassafras albidum;Cichorium intybus;Triodanis perfoliata;Carex normalis;Veronicastrum virginicum;Centaurea stoebe;Carex sparganioides;Silphium integrifolium;tallgrass prairie;Muhlenbergia frondosa;Rudbeckia hirta;Heliopsis helianthoides;Lobelia inflata;Helianthus strumosus;Euthamia graminifolia;Silene latifolia;Alliaria petiolata;Cornus;Hypericum perforatum;Symphyotrichum lateriflorum;Conyza canadensis;Plantago lanceolata;Phleum pratense;Setaria;Persicaria;Solidago speciosa;Symphyotrichum oolentangiense;Agrimonia parviflora;Silphium laciniatum;Symphyotrichum pilosum;Verbascum thapsus;Desmodium canadense;Thalictrum dasycarpum;Fragaria virginiana;Carex annectens;Carex bebbii;Equisetum;Hypericum ascyron;Ambrosia artemisiifolia;Ludwigia alternifolia;Potentilla recta;Anemone virginiana;Coreopsis tripteris;Dichanthelium clandestinum;Cyperus strigosus;Dichanthelium sphaerocarpon;Parthenium integrifolium;Arctium minus;Schizachyrium scoparium;Digitaria cognata;Hieracium;Lycopus;Lespedeza capitata;Galium pilosum;Quercus;Asclepias syriaca;Veronica;Bouteloua curtipendula
DOI:
doi:10.5061/dryad.2175q
摘要:
l resource availability, seed mass had a negative effect on below-ground biomass production, and vegetative height increased decomposition rate. Soil moisture
Khalil:CH4 and N2O Emissions From Sub-tropical Rice Agriculture In China
负责人:
关键词:
methane nitrous oxide rice agriculture China
DOI:
doi:10.5063/aa/nceas.883.2
摘要:
providing a large addition of organic material under hot weather conditions favorable to quick decomposition during the second crop period

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