Nature-based projects work with existing land and ecosystems rather than new industrial infrastructure - biochar, regenerative agriculture, watershed management.
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Every capability below runs through SYNE Carbon's seeker-provider network - 8 nature-based pathways.
Establishes new forest cover or restores degraded forest land through afforestation, reforestation and revegetation, sequestering carbon at scale.
Integrates trees into working farmland, sequestering carbon without taking land out of production.
Applies farm management practices that rebuild soil organic carbon while maintaining productive yield.
Restores degraded natural ecosystems to rebuild their carbon storage capacity and biodiversity value together.
Protects existing high-carbon ecosystems from conversion or degradation, avoiding emissions that would otherwise occur.
Restores and protects coastal and marine ecosystems - mangroves, seagrass, salt marsh - for their carbon sequestration value.
Rewets degraded peatlands and wetlands to halt ongoing carbon loss and rebuild sequestration capacity.
Changes management practices on existing working forest land to increase carbon stock and extend stock longevity.
Establishes new forest cover or restores degraded forest land through afforestation, reforestation and revegetation, sequestering carbon at scale.
Establishes new forest cover through direct planting, or restores degraded forest land through natural regeneration.
Sequesters carbon steadily as the forest matures, with removal accumulating over decades rather than all at once.
Restores habitat and watershed function alongside the carbon credit.
Integrates trees into working farmland, sequestering carbon without taking land out of production.
Integrates trees directly into working cropland or pasture, alongside the existing agricultural activity.
Above and below-ground biomass accumulates carbon while the land stays in production.
Diversifies farm income through timber, fruit or fodder from the same land.
Applies farm management practices that rebuild soil organic carbon while maintaining productive yield.
Applies farm management changes - cover cropping, reduced tillage, rotational practices - across existing cropland.
Rebuilds soil organic carbon that conventional intensive farming depletes over time.
Improves soil water retention and fertility, often lowering input costs.
Restores degraded natural ecosystems to rebuild their carbon storage capacity and biodiversity value together.
Actively rehabilitates degraded natural landscapes back toward their original ecological state.
Recovers the carbon storage capacity lost when the ecosystem was originally degraded.
Rebuilds biodiversity and ecosystem services - water regulation, pollination - alongside carbon.
Protects existing high-carbon ecosystems from conversion or degradation, avoiding emissions that would otherwise occur.
Protects existing high-carbon ecosystems from conversion, logging or degradation before it happens.
Avoids the emissions that would occur if the ecosystem were cleared or degraded - avoidance, not removal.
Preserves biodiversity and ecosystem services that are far more costly to rebuild than protect.
Restores and protects coastal and marine ecosystems - mangroves, seagrass, salt marsh - for their carbon sequestration value.
Restores or protects coastal and marine ecosystems - mangroves, seagrass meadows, salt marsh - directly.
These ecosystems sequester carbon at a rate per hectare far higher than most terrestrial forests.
Protects coastal communities from storm surge alongside the carbon benefit.
Rewets degraded peatlands and wetlands to halt ongoing carbon loss and rebuild sequestration capacity.
Rewets degraded peatland and wetland sites to halt the ongoing decomposition releasing stored carbon.
Stops an active carbon loss and gradually rebuilds the wetland's long-term storage capacity.
Restores natural flood buffering and water filtration alongside the emissions reduction.
Changes management practices on existing working forest land to increase carbon stock and extend stock longevity.
Changes management practices on existing working forest land to grow more carbon stock, not just more timber.
Extends harvest cycles and increases standing carbon stock relative to business-as-usual forestry.
Sustains a working forestry business while generating a verifiable carbon credit.
Nature-based approaches typically cost less to deploy and deliver co-benefits - soil health, biodiversity, water quality - that a purely engineered solution doesn't. The trade-off is slower, more variable measurement, which is why MRV matters more here, not less.
Every pillar can be delivered nature-based, technology-based, or hybrid - explore each to see the specific projects available.
Implementation partners and technology providers working in nature-based approaches can join SYNE Carbon's partner network to get matched with seekers actively looking for proven delivery capability - vetted once, then visible to every relevant project.
Whether you're seeking a project or offering implementation capability, SYNE can manage the match end-to-end.