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Write group number and keywords as you like under the heading you chose....

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Write group number and keywords as you like under the heading you chose....

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More water = more soil organic carbon. This is because microorganisms slow down decomposition and release more CH4

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Restoring the natural hydrology of the forest system has positive biodiversity effects, with a larger effect when native tree species are present

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The carbon cycle in a forest is influenced by the tree's growth rate, lifespan, wood density, litter input to the soil and disturbances.

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The carbon cycle in a forest is influenced by the tree's growth rate, lifespan, wood density, litter input to the soil and disturbances.

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The restoration of hydrology on forests contribute to increase the resilience of the forest, so it can adapt better to climate change and future disturbances.

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Too much water represses biomass growth, however these locations are not very productive even when drained, compared to other areas that are naturally more dry.

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The carbon cycle: 1. Atmosphere -> 2. Biomass -> 3. Litter/Dead wood -> 4. Soil -> 1. Atmosphere

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The carbon cycle: 1. Atmosphere -> 2. Biomass -> 3. Litter/Dead wood -> 4. Soil -> 1. Atmosphere

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The tree's availability to sequester carbon depend on their age

The peak productivity age at 45 years(depending of tree species).

When trees are young they are strong carbon sinks and decline with age. When they reach a certain age the carbon sequestration and release reached an equilibrium. There it's important to harvest at the right time.

After harvest the carbon realise is dependant on the end product of the tree.

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more efficient use of resources

slightly more carbon stocks in soils

more stable wood production

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Unmanaged forests impact on C sequestration

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Unmanaged forests impact on C sequestration

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undisturbed soil: higher soil C pool

additional C stock in dead wood

no thinning increases biomass C

overall higher C stocks (despite lower uptake)

no fertilization: no N2O emissions

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Productive plantations impact on C sequestration

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Productive plantations impact on C sequestration

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fertilizations increasing C uptake

harvesting at optimal time (before leveling off) increasing C uptake

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Unmanaged forests impact on GHG emissions & ecosystem services

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Unmanaged forests impact on GHG emissions & ecosystem services

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biodiversity

methane emissions if restored hydrology

can be carbon sources

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Plantations impact on GHG emissions & ecosystem services

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Plantations impact on GHG emissions & ecosystem services

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wood substitution effect --> lower GHG emissions

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GHG emission:

Regular harvest can be more efficient if the end product in carbon is stored, because young trees have higher sequestration.

Carbon storage will remain at same level if we don't harvest.

Ecosystem:

Every harvest will eliminate habitats: disturbance in biodiversity.

Forest age affect ecosystem composition.