New Phytologist, ISSN 0028-646X, 1/2013, Volume 197, Issue 2, pp. 544 - 554
Elevated CO increases intrinsic water use efficiency (WUE ) of forests, but the magnitude of this effect and its interaction with climate is still poorly...
Trees | Full papers | Fumigation | Carbon dioxide | Forest canopy | Plants | Pine trees | Face | Growth rings | Atmospherics | Carbon isotopes | Populus nigra | dendro‐ecology | Pinus taeda | Populus × euramericana | Liquidambar styraciflua | climate change | Populus alba | DECIDUOUS FOREST | dendro-ecology | PLANT SCIENCES | STABLE-ISOTOPES | POPLAR PLANTATION | STOMATAL CONDUCTANCE | Populus x euramericana | RISING ATMOSPHERIC CO2 | N-FERTILIZATION | DIOXIDE CONCENTRATION | ENRICHMENT FACE | PHOTOSYNTHETIC RESPONSES | TEMPERATE FOREST | North Carolina | Climate | Air - analysis | Tennessee | Water - metabolism | Carbon Isotopes | Trees - drug effects | Oxygen Isotopes | Regression Analysis | Trees - physiology | Time Factors | Partial Pressure | Photosynthesis - drug effects | Plant Stomata - drug effects | Italy | Carbon Dioxide - pharmacology | Plant Stomata - physiology | Water use | Dendroclimatology | Global temperature changes | Analysis | Atmospheric carbon dioxide
Trees | Full papers | Fumigation | Carbon dioxide | Forest canopy | Plants | Pine trees | Face | Growth rings | Atmospherics | Carbon isotopes | Populus nigra | dendro‐ecology | Pinus taeda | Populus × euramericana | Liquidambar styraciflua | climate change | Populus alba | DECIDUOUS FOREST | dendro-ecology | PLANT SCIENCES | STABLE-ISOTOPES | POPLAR PLANTATION | STOMATAL CONDUCTANCE | Populus x euramericana | RISING ATMOSPHERIC CO2 | N-FERTILIZATION | DIOXIDE CONCENTRATION | ENRICHMENT FACE | PHOTOSYNTHETIC RESPONSES | TEMPERATE FOREST | North Carolina | Climate | Air - analysis | Tennessee | Water - metabolism | Carbon Isotopes | Trees - drug effects | Oxygen Isotopes | Regression Analysis | Trees - physiology | Time Factors | Partial Pressure | Photosynthesis - drug effects | Plant Stomata - drug effects | Italy | Carbon Dioxide - pharmacology | Plant Stomata - physiology | Water use | Dendroclimatology | Global temperature changes | Analysis | Atmospheric carbon dioxide
Journal Article
Journal of Ecology, ISSN 0022-0477, 07/2014, Volume 102, Issue 4, pp. 981 - 988
Summary In temperate climates, seedlings and saplings have often been assumed to be more sensitive to late‐spring freezes than conspecific adult trees. Yet, no...
bud burst | plant–climate interactions | cold hardiness | frost | phenology | flushing | low temperature | temperate deciduous forest | ontogeny | resistance | Resistance | Flushing | Plant-climate interactions | Bud burst | Phenology | Temperate deciduous forest | Ontogeny | Frost | Cold hardiness | Low temperature | BEECH PROVENANCES | NEW-ZEALAND | plant-climate interactions | FAGUS-SYLVATICA L | PLANT SCIENCES | PHOTOPERIOD | TEMPERATURE | WOODY-PLANTS | GROWTH | FOLIAR FROST-RESISTANCE | ECOLOGY | COLD RESISTANCE | Deciduous forests
bud burst | plant–climate interactions | cold hardiness | frost | phenology | flushing | low temperature | temperate deciduous forest | ontogeny | resistance | Resistance | Flushing | Plant-climate interactions | Bud burst | Phenology | Temperate deciduous forest | Ontogeny | Frost | Cold hardiness | Low temperature | BEECH PROVENANCES | NEW-ZEALAND | plant-climate interactions | FAGUS-SYLVATICA L | PLANT SCIENCES | PHOTOPERIOD | TEMPERATURE | WOODY-PLANTS | GROWTH | FOLIAR FROST-RESISTANCE | ECOLOGY | COLD RESISTANCE | Deciduous forests
Journal Article
Journal of Ecology, ISSN 0022-0477, 01/2018, Volume 106, Issue 1, pp. 59 - 75
Mixed conifer–hardwood forests can be more productive than pure forests and they are increasingly considered as ecosystems that could provide adaptation...
drought | atmospheric CO2 concentration | basal area increment | biotic interactions | stable carbon isotopes | Pinus sylvestris | Fagus sylvatica | concentration | atmospheric CO | CARBON-ISOTOPE DISCRIMINATION | SYLVESTRIS FORESTS | FAGUS-SYLVATICA L | PLANT SCIENCES | RESPONSES | SPECIES RICHNESS | ECOLOGY | DIVERSITY-PRODUCTIVITY RELATIONSHIPS | RING DELTA-C-13 | GAS-EXCHANGE | STAND DENSITY | RADIAL GROWTH | Water | Coniferous forests | Growth | Ecosystems | Droughts | Water use | Deciduous forests | Competition | Adaptations | Forests | Climate | Carbon dioxide | Environmental changes | Interspecific | Pine trees | Shade | Ecological effects | Efficiency | Beech | Drought | Species | Water scarcity | Mixed forests | Trees | Complementarity | Tolerance | Uptake | Pine
drought | atmospheric CO2 concentration | basal area increment | biotic interactions | stable carbon isotopes | Pinus sylvestris | Fagus sylvatica | concentration | atmospheric CO | CARBON-ISOTOPE DISCRIMINATION | SYLVESTRIS FORESTS | FAGUS-SYLVATICA L | PLANT SCIENCES | RESPONSES | SPECIES RICHNESS | ECOLOGY | DIVERSITY-PRODUCTIVITY RELATIONSHIPS | RING DELTA-C-13 | GAS-EXCHANGE | STAND DENSITY | RADIAL GROWTH | Water | Coniferous forests | Growth | Ecosystems | Droughts | Water use | Deciduous forests | Competition | Adaptations | Forests | Climate | Carbon dioxide | Environmental changes | Interspecific | Pine trees | Shade | Ecological effects | Efficiency | Beech | Drought | Species | Water scarcity | Mixed forests | Trees | Complementarity | Tolerance | Uptake | Pine
Journal Article
Plant, Cell & Environment, ISSN 0140-7791, 02/2004, Volume 27, Issue 3, pp. 367 - 380
Evidence is presented for a very specific, seasonally recurring tri‐phase carbon isotope pattern in tree rings of broad‐leaf deciduous tree species. It is...
deciduous trees | δ13C | high‐resolution sampling | tree rings | seasonal pattern | Tree rings | High-resolution sampling | Seasonal pattern | Deciduous trees
deciduous trees | δ13C | high‐resolution sampling | tree rings | seasonal pattern | Tree rings | High-resolution sampling | Seasonal pattern | Deciduous trees
Journal Article
Ecology, ISSN 0012-9658, 06/2015, Volume 96, Issue 6, pp. 1480 - 1491
Climate change is altering insect disturbance regimes via temperature-mediated phenological changes and trophic interactions among host trees, herbivorous...
spp | multitrophic interactions | Abies | Choristoneura fumiferana | spruce budworm outbreak | boreal forest | climate warming | forest productivity | phenological synchrony | Picea | Trees | Forest insects | Climate change | CONCEPTS & SYNTHESIS: EMPHASIZING NEW IDEAS TO STIMULATE RESEARCH IN ECOLOGY | Phenology | Boreal forests | Forest regeneration | Forest ecology | Climate models | Forest ecosystems | Deciduous forests | Abies spp | Picea spp | Spruce budworm outbreak | Boreal forest | Phenological synchrony | Forest productivity | Climate warming | Multitrophic interactions | BUD BURST | CHORISTONEURA | KALMIA-ANGUSTIFOLIA | PATTERNS | SPRUCE BUDWORM OUTBREAKS | DISTURBANCE | RESPONSES | DYNAMICS | QUEBEC | ECOLOGY | IMPACTS | Spruce | Taigas | Insect-plant relationships | Forest dynamics | Climatic changes | Research | Spruce budworm
spp | multitrophic interactions | Abies | Choristoneura fumiferana | spruce budworm outbreak | boreal forest | climate warming | forest productivity | phenological synchrony | Picea | Trees | Forest insects | Climate change | CONCEPTS & SYNTHESIS: EMPHASIZING NEW IDEAS TO STIMULATE RESEARCH IN ECOLOGY | Phenology | Boreal forests | Forest regeneration | Forest ecology | Climate models | Forest ecosystems | Deciduous forests | Abies spp | Picea spp | Spruce budworm outbreak | Boreal forest | Phenological synchrony | Forest productivity | Climate warming | Multitrophic interactions | BUD BURST | CHORISTONEURA | KALMIA-ANGUSTIFOLIA | PATTERNS | SPRUCE BUDWORM OUTBREAKS | DISTURBANCE | RESPONSES | DYNAMICS | QUEBEC | ECOLOGY | IMPACTS | Spruce | Taigas | Insect-plant relationships | Forest dynamics | Climatic changes | Research | Spruce budworm
Journal Article
The New Phytologist, ISSN 0028-646X, 9/2011, Volume 191, Issue 4, pp. 926 - 941
Leafing-out of woody plants begins the growing season in temperate forests and is one of the most important drivers of ecosystem processes. There is...
Trees | Growing seasons | Climate change | Frost damage | Ecosystem models | Phenology | Tansley review | Global warming | Plants | Species | Deciduous forests | leaf‐out | temperate forests | budburst | phenology | climate change | Budburst | Temperate forests | Leaf-out | BUD-BURST | CARBON BALANCE | GROWTH CESSATION | CLIMATE-CHANGE | SPRING PHENOLOGY | GROWING-SEASON | PLANT SCIENCES | GENETIC DIVERSITY | FROST DAMAGE | leaf-out | DORMANCY RELEASE | AIR-TEMPERATURE | Climate | Temperature | Species Specificity | Wood - physiology | Photoperiod | Trees - growth & development | Flowers - growth & development | Trees - physiology | Climate Change | Time Factors | Plant Leaves - growth & development | Ecosystem | Flowers - physiology | Remote Sensing Technology | Seasons | Wood - growth & development | Plant Leaves - physiology | Ecosystems | Analysis | Global temperature changes
Trees | Growing seasons | Climate change | Frost damage | Ecosystem models | Phenology | Tansley review | Global warming | Plants | Species | Deciduous forests | leaf‐out | temperate forests | budburst | phenology | climate change | Budburst | Temperate forests | Leaf-out | BUD-BURST | CARBON BALANCE | GROWTH CESSATION | CLIMATE-CHANGE | SPRING PHENOLOGY | GROWING-SEASON | PLANT SCIENCES | GENETIC DIVERSITY | FROST DAMAGE | leaf-out | DORMANCY RELEASE | AIR-TEMPERATURE | Climate | Temperature | Species Specificity | Wood - physiology | Photoperiod | Trees - growth & development | Flowers - growth & development | Trees - physiology | Climate Change | Time Factors | Plant Leaves - growth & development | Ecosystem | Flowers - physiology | Remote Sensing Technology | Seasons | Wood - growth & development | Plant Leaves - physiology | Ecosystems | Analysis | Global temperature changes
Journal Article
Forest Ecology and Management, ISSN 0378-1127, 01/2008, Volume 254, Issue 1, pp. 1 - 15
Tree species composition is a primary attribute of forest ecosystems, and is often manipulated by silvicultural practices. Forest management to diversify tree...
Tree species | Understory vegetation | Litter | Light | Forest | Water flows | Biodiversity | DECIDUOUS FOREST | forest | biodiversity | litter | ABIES-ALBA MILL | tree species | FAGUS-SYLVATICA L | understory vegetation | water flows | LIGHT INTERCEPTION | QUERCUS-ROBUR L | DISTRIBUTION PATTERNS | GROUND VEGETATION | light | TRENCHING EXPERIMENT | FORESTRY | HERBACEOUS PLANT DIVERSITY | ROOT COMPETITION | Analysis | Forests and forestry | Life Sciences | Agricultural sciences | Silviculture, forestry
Tree species | Understory vegetation | Litter | Light | Forest | Water flows | Biodiversity | DECIDUOUS FOREST | forest | biodiversity | litter | ABIES-ALBA MILL | tree species | FAGUS-SYLVATICA L | understory vegetation | water flows | LIGHT INTERCEPTION | QUERCUS-ROBUR L | DISTRIBUTION PATTERNS | GROUND VEGETATION | light | TRENCHING EXPERIMENT | FORESTRY | HERBACEOUS PLANT DIVERSITY | ROOT COMPETITION | Analysis | Forests and forestry | Life Sciences | Agricultural sciences | Silviculture, forestry
Journal Article
Journal of Ecology, ISSN 0022-0477, 11/2013, Volume 101, Issue 6, pp. 1509 - 1519
1. Rapidly increasing atmospheric CO₂ is not only changing the climate system but may also affect the biosphere directly through stimulation of plant growth...
Trees | Plant-climate interactions | Plant ecology | Forest ecology | Soil water | Forest canopy | Human ecology | Growth rings | Forest trees | Forest soils | Soil ecology | coupled climate–carbon cycle model | free‐air CO2 enrichment (FACE) | global carbon cycle | elevated CO2 | ecosystem carbon cycling | CO2 fertilization | enrichment (FACE) | fertilization | Coupled climate-carbon cycle model | Elevated CO | Global carbon cycle | Ecosystem carbon cycling | Free-air CO | PLANT SCIENCES | RESPONSES | STOMATAL CONDUCTANCE | free-air CO2 enrichment (FACE) | MATURE DECIDUOUS FOREST | ORGANIC-CARBON | NITROGEN | ECOLOGY | CARBON-DIOXIDE ENRICHMENT | coupled climate-carbon cycle model | TEMPERATE FOREST | FACE EXPERIMENTS | ELEVATED ATMOSPHERIC CO2 | SOIL RESPIRATION | Ecosystems | Carbon cycle (Biogeochemistry) | Nitrification | Atmospheric carbon dioxide
Trees | Plant-climate interactions | Plant ecology | Forest ecology | Soil water | Forest canopy | Human ecology | Growth rings | Forest trees | Forest soils | Soil ecology | coupled climate–carbon cycle model | free‐air CO2 enrichment (FACE) | global carbon cycle | elevated CO2 | ecosystem carbon cycling | CO2 fertilization | enrichment (FACE) | fertilization | Coupled climate-carbon cycle model | Elevated CO | Global carbon cycle | Ecosystem carbon cycling | Free-air CO | PLANT SCIENCES | RESPONSES | STOMATAL CONDUCTANCE | free-air CO2 enrichment (FACE) | MATURE DECIDUOUS FOREST | ORGANIC-CARBON | NITROGEN | ECOLOGY | CARBON-DIOXIDE ENRICHMENT | coupled climate-carbon cycle model | TEMPERATE FOREST | FACE EXPERIMENTS | ELEVATED ATMOSPHERIC CO2 | SOIL RESPIRATION | Ecosystems | Carbon cycle (Biogeochemistry) | Nitrification | Atmospheric carbon dioxide
Journal Article
Ecosystems, ISSN 1432-9840, 9/2016, Volume 19, Issue 6, pp. 1133 - 1147
Drought- and heat-driven tree mortality, along with associated insect outbreaks, have been observed globally in recent decades and are expected to increase in...
disturbance | Hydrology/Water Resources | biodiversity | Zoology | Ecology | recovery | Life Sciences | carbon and water fluxes | Geoecology/Natural Processes | productivity | Plant Sciences | resilience | Environmental Management | DECIDUOUS FOREST | INCREASES | MOUNTAIN PINE-BEETLE | MODEL | RESPONSES | AMAZON FOREST | REDUCTION | DYNAMICS | EXPERIMENTAL DROUGHT | ECOLOGY | Weather | Climate | Greenhouse effect | Ecosystems | Analysis | Mortality | Health aspects | Trees | Climate change | Biogeochemistry | Abiotic stress | Plant ecology
disturbance | Hydrology/Water Resources | biodiversity | Zoology | Ecology | recovery | Life Sciences | carbon and water fluxes | Geoecology/Natural Processes | productivity | Plant Sciences | resilience | Environmental Management | DECIDUOUS FOREST | INCREASES | MOUNTAIN PINE-BEETLE | MODEL | RESPONSES | AMAZON FOREST | REDUCTION | DYNAMICS | EXPERIMENTAL DROUGHT | ECOLOGY | Weather | Climate | Greenhouse effect | Ecosystems | Analysis | Mortality | Health aspects | Trees | Climate change | Biogeochemistry | Abiotic stress | Plant ecology
Journal Article