Sustainable Forestry
Sustainable Forestry
Sustainable forestry is the management and use of forests in ways intended to maintain their environmental, economic, and social values over the long term. Rather than focusing only on sustained timber production, modern sustainable forest management incorporates biodiversity conservation, ecosystem services, climate mitigation and adaptation, soil and water protection, rural livelihoods, community participation, cultural values, and the economic viability of forest-based industries.
The concept increasingly treats forests as complex social-ecological systems. Management decisions can influence carbon storage, wildlife habitat, water quality, soil fertility, employment, local economies, Indigenous and community rights, and the ability of forests to withstand fire, drought, pests, storms, and climate change. Sustainable forestry therefore involves balancing competing objectives rather than maximizing a single forest product.
Principles of Sustainable Forest Management
Sustainable forest management seeks to maintain forest productivity and ecological integrity while allowing forests to provide goods and services to present and future generations. International frameworks emphasize conservation of biodiversity, maintenance of productive capacity, protection of soils and water, forest health, socioeconomic benefits, and appropriate legal and institutional systems.
Modern approaches extend beyond the traditional concept of sustained timber yield. Forests may simultaneously provide timber, non-timber forest products, wildlife habitat, carbon storage, watershed protection, recreation, cultural resources, food, employment, and other ecosystem services. Effective management therefore requires consideration of ecological limits as well as economic and social objectives.
Governance is a major part of sustainability. Transparency, accountability, secure land and forest tenure, public participation, enforcement of forest laws, equitable benefit sharing, and coherent policies can strongly influence whether sustainable-management goals are achieved.
Climate-Smart Forestry and Carbon Management
Climate change has expanded the objectives of sustainable forestry. Climate-smart forestry attempts to combine sustainable forest management with climate-change mitigation and adaptation. Management can influence carbon stored in living trees, deadwood, soils, harvested wood products, and regenerated forests.
Climate-oriented forestry may involve retaining native forests, increasing structural and species diversity, restoring degraded landscapes, adjusting harvesting practices, encouraging regeneration, reducing disturbance risks, and selecting tree populations better suited to future climatic conditions.
Research also shows that carbon management involves significant trade-offs. Harvesting removes carbon from forests but some of that carbon can remain stored in long-lived wood products. Thinning can temporarily reduce forest carbon while potentially improving growth, restoration outcomes, or resistance to disturbance. The climate benefits of wood products depend on product longevity, substitution effects, recycling, reuse, and assumptions concerning future forest growth.
Carbon finance, REDD+, payment systems, and other financial incentives are increasingly being used to encourage forest conservation and sustainable management. Their effectiveness depends on monitoring, governance, permanence, additionality, community participation, and the distribution of economic benefits.
Biodiversity, Ecological Forestry, and Resilience
Biodiversity conservation is a central component of sustainable forestry. Forest management can influence tree diversity, understory vegetation, birds, mammals, amphibians, reptiles, insects, fungi, soil organisms, and other components of forest ecosystems.
Ecological forestry attempts to retain or recreate features associated with naturally functioning forests. Important features can include old and large trees, standing dead trees, fallen wood, cavities, multiple canopy layers, mixed tree species, structural diversity, natural regeneration, and habitat patches retained during harvesting.
Retention forestry leaves selected living trees, deadwood, habitat trees, and other structural elements within harvested areas. Research indicates that retained trees can provide refuges and habitat for forest organisms while reducing some ecological effects of harvesting.
Mixed-species forests and uneven-aged stands can provide additional ecological advantages. Tree mixtures may support greater biodiversity and improve nutrient cycling, biomass accumulation, soil carbon, and microbial communities. Uneven-aged and continuous-cover forests may also experience different disturbance patterns than even-aged stands.
Closer-to-nature forestry and rewilding-inspired approaches seek to restore natural processes, structural complexity, trophic relationships, and ecological resilience while continuing to provide forest products and other services.
Community Forestry and Indigenous Knowledge
Community participation is widely recognized as an important element of sustainable forestry. Community-based and participatory forest management can give local residents greater involvement in forest planning, harvesting, restoration, monitoring, and benefit sharing.
Evidence from countries including Kenya, Ethiopia, Nepal, Mexico, the Philippines, China, and other regions shows that community forestry can contribute to forest regeneration, biodiversity conservation, carbon storage, household income, and rural livelihoods. Outcomes vary considerably depending on tenure security, institutional capacity, funding, governance, market access, enforcement, and whether local communities receive meaningful benefits.
Secure forest rights can encourage long-term investment and stewardship. Conversely, unclear tenure, limited participation, weak institutions, or inequitable distribution of benefits can undermine conservation objectives.
Indigenous and traditional ecological knowledge can also contribute to sustainable forest management. Cultural burning and other Indigenous fire practices have been used to influence vegetation, maintain culturally important resources, reduce hazardous fuels, improve mobility, and support relationships between people and forest landscapes.
Sustainable forestry increasingly recognizes that Indigenous Peoples and local communities are not simply stakeholders in forest management but may possess generations of ecological knowledge and established systems of forest governance.
Sustainable Timber Harvesting and Reduced-Impact Logging
Timber harvesting can be compatible with sustainable forestry when harvest intensity, regeneration, infrastructure, and ecological effects are carefully managed. Poorly planned logging can damage soils, waterways, remaining trees, wildlife habitat, and future timber productivity.
Reduced-impact logging uses advance planning and improved harvesting techniques to reduce damage. Measures may include mapping harvest areas, planning roads and skid trails, directional tree felling, minimizing soil disturbance, protecting streams, training workers, reducing wood waste, and assessing forests after harvest.
Selective logging removes only a portion of available trees, but low harvest intensity alone does not guarantee sustainability. Selective logging can still alter tree-species composition, regeneration, forest structure, and habitat conditions.
Retention forestry can lessen some effects of timber harvesting by leaving habitat trees, snags, patches of forest, and other ecological structures. Long-term management must also ensure that enough trees survive and regenerate to maintain ecological functions and future forest productivity.
Forest Roads, Soil, and Water Protection
Forest roads are among the most significant sources of soil disturbance and sediment associated with forestry operations. Roads and skid trails can increase erosion, compact soils, alter drainage, fragment habitat, and introduce sediment into streams.
Forestry best management practices seek to reduce these impacts through careful road placement, drainage structures, stabilized slopes, properly designed stream crossings, erosion-control materials, and protection of streamside vegetation.
Climate change creates additional challenges because more intense rainfall and extreme weather can overwhelm road drainage systems and increase erosion. Sustainable road design therefore increasingly considers future precipitation patterns as well as historical conditions.
Soil conservation is equally important within harvested stands. Excessive compaction can reduce soil permeability, alter water-holding capacity, damage roots, and affect long-term forest productivity.
Forests also play major roles in watershed systems. Sustainable forest-water management seeks to protect water quality, regulate runoff, maintain watershed resilience, and balance water objectives with timber production and other land uses.
Forest Certification, Markets, and Sustainable Finance
Forest certification attempts to provide independent standards for environmentally responsible, socially beneficial, and economically viable forest management. Major certification systems include the Forest Stewardship Council (FSC) and the Programme for the Endorsement of Forest Certification (PEFC).
Certification can influence harvesting practices, biodiversity safeguards, worker protections, community relations, planning, traceability, and access to markets. Research finds that ecological and economic outcomes vary among regions, forest types, species, and management systems.
Certification is therefore not automatically equivalent to biodiversity conservation. Its effectiveness depends on the strength of standards, implementation, auditing, local ecological conditions, management intensity, and enforcement.
Sustainable finance is becoming another important forestry tool. Investors, governments, development institutions, carbon markets, and conservation programs increasingly evaluate forestry projects using environmental, social, economic, and governance criteria.
Financial incentives can encourage landowners and forest managers to retain forests, improve management, restore degraded areas, store carbon, or protect ecosystem services. However, financial mechanisms must be designed carefully to avoid rewarding activities that would have occurred without incentives or transferring environmental costs elsewhere.
Forest Monitoring and Digital Forestry
Modern sustainable forestry increasingly depends on remote sensing and digital technologies. Satellites, drones, LiDAR, laser scanners, GPS, artificial intelligence, machine learning, and Internet-of-Things sensors can provide detailed information about forest structure and change.
Remote sensing can be used to estimate tree height and biomass, identify forest disturbance, detect selective logging, monitor deforestation, design roads and harvesting systems, map habitats, assess forest health, and measure carbon stocks.
LiDAR can provide three-dimensional information about forest structure, while satellite imagery allows repeated monitoring across very large areas. Combining different technologies can improve forest inventories and make it easier to evaluate compliance with management plans.
Digital timber-traceability systems are also being developed to combat illegal logging. Technologies can include QR codes, RFID tags, GPS records, DNA identification, smartphones, machine learning, and computer vision.
Traceability remains challenging because discrepancies can exist between officially documented timber production and actual forest exploitation. Technology therefore complements rather than replaces effective forest governance and law enforcement.
Fire, Thinning, and Forest Resilience
Fire management is increasingly important as climate change alters wildfire frequency, intensity, and seasonality in many regions. Fire can be both an ecological process and a threat to forests, communities, infrastructure, and biodiversity.
Prescribed burning and managed wildfire can help restore fire-adapted ecosystems, reduce fuel accumulation, influence forest structure, and create diverse habitat conditions. Mechanical thinning is also used to reduce tree density and hazardous fuels.
Research shows that combinations of thinning and prescribed fire can reduce surface, ladder, and canopy fuels and may provide long-lasting ecological benefits. Fire treatments can also influence pollinators, understory vegetation, tree regeneration, and wildlife habitat.
The ecological effects of fire depend on intensity, frequency, season, landscape context, and the species involved. Sustainable fire management therefore seeks to restore appropriate fire regimes rather than eliminate fire completely.
Fire refugia—areas that remain relatively unaffected during wildfire—can be important for maintaining older forest structures, wildlife populations, and sources for ecological recovery.
Climate Adaptation and Assisted Migration
Rapid climate change may cause some tree populations to become poorly suited to environmental conditions within their current ranges. Assisted migration involves intentionally moving tree populations, provenances, or species to locations expected to provide more suitable future climates.
Approaches range from moving seed sources within a species' existing range to facilitating range expansion or, in more controversial cases, moving species beyond their historical distributions.
Potential benefits include maintaining forest productivity, carbon storage, and resilience. Risks include maladaptation, ecological disruption, invasiveness, genetic effects, and uncertainty about future climate conditions.
Assisted migration is therefore increasingly being studied through long-term experimental networks and operational planting trials. Revised seed-transfer guidelines are also being developed in some regions to incorporate projected climate conditions into reforestation decisions.
Continuous-Cover Forestry and Mixed Forests
Continuous-cover forestry maintains a relatively permanent forest canopy rather than relying on large clearcuts followed by even-aged regeneration. It commonly uses selective harvesting, natural regeneration, small gaps, and uneven-aged stand structures.
The approach can provide advantages for biodiversity, landscape appearance, microclimate, soil protection, recreation, and some ecosystem services. However, results depend on forest type, harvesting intensity, management objectives, and local ecological conditions.
Mixed-species forests can complement continuous-cover approaches. Research suggests that mixtures often support more biodiversity than single-species plantations and can improve some aspects of nutrient cycling, soil functioning, biomass production, and resilience.
Continuous-cover forestry also involves trade-offs. Timber production, harvesting efficiency, regeneration, carbon storage, biodiversity, and operational costs may respond differently depending on management intensity.
Forest Restoration, Natural Regeneration, and Agroforestry
Restoring degraded forests is an increasingly important part of sustainable forestry. Restoration methods range from passive natural regeneration to assisted natural regeneration, enrichment planting, plantations, and intensive reforestation.
Natural regeneration can allow forests to recover using locally adapted genetic material and natural ecological processes. Assisted natural regeneration supports this process by protecting seedlings, controlling damaging disturbances, managing competing vegetation, and sometimes adding enrichment planting.
The success of regeneration depends on seed availability, surrounding forests, browsing pressure, fire, invasive species, land-use history, climate, governance, funding, and local participation.
Plantations can supply timber and other products and potentially reduce pressure on natural forests, but plantation design strongly affects biodiversity and ecosystem services. Mixed-species and native-species plantations can provide different ecological outcomes from intensive monocultures.
Agroforestry integrates trees with crops or livestock. It can contribute to farm productivity, carbon storage, soil conservation, household income, restoration, and landscape tree cover while reducing pressure on remaining natural forests.
Non-Timber Forest Products and Forest Livelihoods
Forests provide many products other than industrial timber. Non-timber forest products can include foods, medicinal plants, fibers, resins, fuel, fruits, mushrooms, honey, and other biological resources.
These products can provide important household income and subsistence resources for forest-dependent communities. Sustainable commercialization may create incentives for forest conservation when local people benefit economically from maintaining forests.
However, commercial demand can also result in overharvesting. Sustainable management requires knowledge of regeneration rates, harvesting limits, tenure systems, market conditions, and local ecological knowledge.
Traditional institutions and community rules can play important roles in regulating access to forest resources and maintaining long-term supplies.
Forest Governance, Tenure, and Legal Timber
Forest sustainability depends heavily on laws, institutions, and property rights. Forest governance determines who has authority to manage forests, who receives benefits, how rules are enforced, and how competing land-use demands are resolved.
Tenure reform can influence whether individuals and communities invest in forestry or participate in conservation. Greater security of forest rights can encourage longer-term management, although outcomes depend on accompanying institutions and economic opportunities.
Illegal logging remains a major challenge. Timber-traceability systems attempt to verify the origin and movement of forest products from harvesting sites through processing and markets.
Effective governance combines technology with transparent institutions, enforcement, community participation, reliable inventories, land-tenure systems, and mechanisms for resolving disputes.
National and international forest policies increasingly connect sustainable forestry with climate resilience, biodiversity conservation, ecosystem-service payments, carbon finance, restoration, and natural-capital accounting.
Sustainable Forestry and the Forest Bioeconomy
Forests support a broader bioeconomy involving timber, construction materials, paper, energy, non-timber products, ecosystem services, and emerging biomaterials.
Long-lived wood products can retain carbon after trees are harvested, particularly when timber is used in buildings and other durable applications. Reuse, recycling, cascading use, and efficient material design can extend the useful life of harvested wood.
The climate effects of the forest bioeconomy remain complex. Increasing harvest levels can reduce forest carbon stocks, while wood products may provide carbon storage or substitute for more emissions-intensive materials. Outcomes depend on forest growth rates, harvesting intensity, product lifetimes, energy systems, and assumptions about alternative land uses and materials.
Sustainable forestry therefore requires evaluation of the entire forest-product system rather than considering forest growth or timber production in isolation.
Conclusion
Sustainable forestry has developed from a relatively narrow focus on maintaining timber yields into a broad framework for managing forests as ecological, economic, and social systems. Its objectives now include biodiversity conservation, climate mitigation and adaptation, watershed protection, soil conservation, livelihoods, cultural values, forest resilience, and long-term supplies of renewable forest products.
No single management system provides the best outcome in every forest. Reduced-impact logging, retention forestry, continuous-cover management, mixed forests, natural regeneration, prescribed fire, assisted migration, certification, community forestry, agroforestry, and technological monitoring each offer potential benefits but also involve limitations and trade-offs.
Evidence increasingly emphasizes the importance of maintaining structural complexity, protecting old trees and deadwood, retaining natural forests, supporting regeneration, reducing soil and water damage, securing community and Indigenous rights, improving forest governance, and adapting management to changing climates.
The central challenge of sustainable forestry is therefore not simply determining how much timber can be removed from a forest. It is deciding how forests can continue to support biodiversity, human communities, economic activity, carbon storage, water systems, cultural values, and ecological processes across generations.
Sustainable Forestry: Foundations and Principles
| FAO | Sustainable Forest Management Toolbox | 2025
Provides access to frequently used sustainable forestry resources covering silviculture, forest certification, inventories, agroforestry, watersheds, and wildlife management.
| FAO | Food and Agriculture Organization of the United Nations | n.d.
Provides an overview of sustainable forest management as an approach intended to maintain environmental, economic, and social forest values for present and future generations.
| FAO | Food and Agriculture Organization of the United Nations | n.d.
Explains the evolution of sustainable forest management from sustained timber production toward integrated management of biodiversity, ecosystem services, livelihoods, and cultural values.
| FAO | Food and Agriculture Organization of the United Nations | n.d.
Examines sustainable forest management through economic development, biodiversity, climate, food security, soil and water conservation, and social inclusion.
| FAO | SDG Indicators Data Portal | n.d.
Describes SDG Indicator 15.2.1 and the measures used internationally to track progress toward sustainable management of the world's forests.
| FAO | Policy Support and Governance Gateway | n.d.
Reviews the policy, governance, economic, environmental, and participatory foundations necessary for implementing sustainable forestry.
| International Tropical Timber Organization | ITTO | n.d.
Defines sustainable forest management in tropical forests and identifies objectives involving timber, biodiversity, carbon, water, soils, and forest-dependent communities.
| FAO | Food and Agriculture Organization of the United Nations | n.d.
Describes international efforts to implement sustainable forestry through policy development, REDD+, community organizations, biodiversity protection, and sustainable forest-product value chains.
| FAO | Sustainable Forest Management Toolbox | n.d.
Explains how accountability, transparency, participation, equitable tenure, enforcement, and coherent laws influence successful sustainable forest management.
| FAO | Food and Agriculture Organization of the United Nations | n.d.
Examines how sustainable timber production, non-wood products, ecosystem services, investment, and rural livelihoods can make forests economically viable without exhausting forest resources.
Climate-Smart Forestry and Carbon Management
| Soonjin So and Chang-Bae Lee | Frontiers in Forests and Global Change | 2026-01-29
Evaluates carbon benefits across forest management, harvested wood products, and biomass energy in an integrated South Korean forestry supply chain.
| — | Trees, Forests and People | 2026
Reviews forestry carbon finance, REDD+, voluntary carbon markets, and payment systems as mechanisms for supporting sustainable forest management.
| R. Alec Giffen et al. | Forest Ecology and Management | 2025-11-01
Proposes redefining sustainable forestry around climate mitigation, adaptation, native-forest retention, biological diversity, resilience, and landscape-scale carbon storage.
| — | Journal of Environmental Management | 2025-10
Reviews two decades of forest carbon sequestration, carbon-credit development, and the economic implications of sustainable forestry practices.
| Sofie Van Winckel et al. | Biogeosciences | 2025-08-28
Uses remote sensing to evaluate how forest management influences aboveground carbon stocks and discusses applications for climate-conscious forestry.
| Melkamu Kassaye et al. | Trees, Forests and People | 2025-06
Reviews forest carbon research in Ethiopia and finds strong potential for sustainable and participatory forest management to increase carbon sequestration.
| Sheri Anne Andrews-Key and Harry Nelson | Frontiers in Forests and Global Change | 2025-02-27
Examines how Canadian forestry companies can incorporate climate-vulnerability assessments into operational forest management and adaptation planning.
| Stephanie Chizmar et al. | Trees, Forests and People / U.S. Forest Service | 2025
Reviews how private forest owners respond to financial incentives designed to encourage sustainable and climate-smart forest management.
| G. Geoff Wang et al. | Journal of Forestry Research | 2024-11-16
Develops the concept of climate-smart forestry using ecological forestry, carbon management, artificial intelligence, remote sensing, and digital technologies.
| — | Ecosystem Services | 2020
Defines climate-smart forestry around the combined goals of climate adaptation, mitigation, sustainable forest management, and social benefits.
Community and Participatory Forestry
Synthesizes global research on the social, economic, institutional, and ecological factors that determine participation in community-based forest management.
| Zemenu Woldie et al. | Discover Sustainability | 2025-08-04
Reviews evidence that participatory forest management in Ethiopia can improve forest density, biodiversity, household income, and conservation outcomes.
| Samora M. Andrew | Discover Environment | 2025-07-10
Finds that community-based management can improve forest condition in village forests within the Eastern Afromontane biodiversity hotspot.
| — | Plant-Environment Interactions | 2025-03-16
Studies a Nepalese community forest and links successful regeneration, structural diversity, and carbon storage with community-led sustainable management.
| Colbert M. Jackson et al. | Trees, Forests and People | 2025-03
Evaluates Kenya's participatory forestry laws and identifies governance, enforcement, funding, benefit-sharing, and community-involvement challenges.
| — | Sustainability | 2024-05-24
Evaluates Nepalese Community Forest User Groups using indicators for governance, forest management, finances, livelihoods, collaboration, and institutional performance.
| — | Journal for Nature Conservation | 2024-03
Finds that participatory forest management in Ethiopia can improve forest regeneration, ecosystem services, income diversification, and rural livelihoods.
| — | Trees, Forests and People | 2024
Examines the Philippines' community-based forest management program and argues that community welfare, tenure, livelihoods, and social justice are essential components of sustainability.
| — | Socio-Ecological Practice Research | 2024
Examines how community forest enterprises in central Mexico can scale up commercial activities while maintaining conservation objectives and sustainable management.
| — | Environmental Science & Policy | 2023-01
Proposes "management authorship" as an adaptive approach for combining scientific knowledge with Indigenous and community forest-management practices.
Forest Certification, Markets, and Sustainable Finance
| International Tropical Timber Organization | ITTO | 2025-10-31
Reports new international funding and policy commitments intended to advance sustainable tropical forest management and responsible timber industries.
| Inoussa Boubacar and Yaya Sissoko | Journal of Cleaner Production | 2025-08-01
Analyzes FSC certification across 70 countries and finds evidence that certification can contribute to forest-cover conservation, with effects varying by income and climate.
| ITTO Secretariat et al. | Tropical Forest Update | 2025-04-30
Presents examples of sustainable forestry involving tropical timber, community enterprises, secondary forests, microcredit, teak, and international forest policy.
| — | Journal of Sustainable Finance and Accounting | 2025-03
Develops a framework for determining whether investments in forestry adequately address environmental, social, economic, and governance dimensions of sustainability.
| — | Frontiers in Forests and Global Change | 2024-10-15
Examines forest certification across Europe and finds relationships between certification levels and economic performance in forestry.
| — | Forest Policy and Economics | 2024-09
Investigates how internal and external motivations for certification affect forestry-company management practices and market performance.
| Joeri A. Zwerts et al. | Frontiers in Forests and Global Change | 2024-06-24
Evaluates whether forest certification can effectively protect intact forest landscapes while maintaining economic viability and accommodating community interests.
Conducts a global review and meta-analysis of FSC forest certification and finds mixed biodiversity effects, with outcomes varying among species and regions.
| — | World Development | 2024-01
Finds evidence that FSC certification can reduce deforestation probability on private properties designated for sustainable forest management in the Brazilian Amazon.
| European Forest Institute | EFI | 2024
Examines forest-biodiversity criteria relevant to sustainable finance, including deadwood, species richness, management indicators, and conservation thresholds.
Reduced-Impact Logging and Sustainable Timber Harvesting
| David Ocama Kissa et al. | PLOS One | 2025-06-05
Studies forest structure, regeneration, and timber-volume dynamics along a logging gradient in an African tropical rainforest and discusses implications for sustainable timber management.
| — | Frontiers in Forests and Global Change | 2025
Finds that extensive logging in Malawi's miombo woodlands threatens tree diversity and interconnected water, energy, soil, and biological resources.
| FAO | Sustainable Forest Management Toolbox | 2004
Presents a regional code of practice for reduced-impact logging in tropical moist forests of West and Central Africa.
| Thomas Enters et al., eds. | FAO | 2002
Compiles international research and case studies on applying reduced-impact logging techniques to advance sustainable forest management.
| Dennis P. Dykstra | FAO | 2002
Explains reduced-impact logging concepts, history, technologies, training requirements, planning practices, and their relationship to sustainable tropical forestry.
| Wulf Killmann et al. | FAO | 2002
Examines whether reduced-impact logging increases or decreases harvesting costs and discusses its potential operational and economic benefits.
| FAO | State of the World's Forests 2001 | 2001
Reviews environmentally sound harvesting practices and the potential of reduced-impact logging to lessen damage to soils and remaining forest stands.
| FAO | Sustainable Forest Management Toolbox | n.d.
Reviews planning, road construction, felling, extraction, transportation, and post-harvest assessment practices intended to reduce the ecological impacts of timber harvesting.
| FAO | Sustainable Forest Management Toolbox | n.d.
Explains reduced-impact logging and the technical, environmental, operational, soil, terrain, and workforce considerations involved in sustainable timber harvesting.
| FAO | Food and Agriculture Organization of the United Nations | n.d.
Synthesizes research on reduced-impact logging, including logging intensity, stand damage, wood waste, economics, and sustainable tropical harvesting.
Biodiversity, Resilience, and Ecological Forestry
| — | Land Use Policy | 2026-02
Synthesizes recommendations for adapting biodiversity conservation in temperate and boreal forestry landscapes to projected climate change.
| — | Trees, Forests and People | 2026
Reviews global and regional evidence concerning the effects of forest certification on birds, mammals, reptiles, amphibians, invertebrates, and other fauna.
| — | Acta Oecologica | 2025-09
Reviews soil macronutrients across Ethiopian vegetation types and discusses their significance for forest health, productivity, conservation, and sustainable ecosystem management.
| S. Mutterer et al. | Forest Ecology and Management | 2025-06-15
Models how close-to-nature forestry affects vulnerability to fire, wind, and bark beetles while illustrating trade-offs among biodiversity and ecosystem services.
Proposes rewilding-inspired forestry as a way to restore trophic complexity, natural disturbance processes, biodiversity, carbon storage, and ecological resilience.
| Alice Broome et al. | Forest Research | 2025-01-30
Synthesizes evidence on how woodland creation, management, and landscape configuration affect biodiversity, resilience, and environmental benefits.
| Monica Evans | CIFOR-ICRAF Forests News | 2025-01-24
Discusses sustainable wildlife management as an approach that combines biodiversity conservation with food security, livelihoods, rights, and local resource management.
| — | Frontiers in Forests and Global Change | 2025
Examines the challenge of balancing biodiversity conservation, resource use, local livelihoods, and participatory management in Kenya's Kakamega Forest.
| — | Journal for Nature Conservation | 2025
Examines changing trade-offs among carbon storage, soil conservation, food provisioning, land use, and forest conservation in an Ethiopian Afromontane forest.
| IUCN | IUCN World Conservation Congress | 2025
Calls for forest-soil biodiversity, ecosystem services, restoration, monitoring, and soil protection to be integrated more explicitly into sustainable forestry policy.
Forest Monitoring, Remote Sensing, and Digital Forestry
| — | Frontiers in Forests and Global Change | 2026-03-09
Investigates improved forest mapping through combined seasonal canopy and spectral-reflectance information for more effective monitoring and management.
| Chunxi Zhao, Songlin Fei and Ayman Habib | Remote Sensing of Environment | 2026
Develops a backpack-LiDAR method for detailed tree detection, mapping, georeferencing, and precision forest inventories.
| Joanne C. White et al. | Canadian Journal of Forest Research | 2025-12-23
Reviews the implementation and future research needs of enhanced forest inventories using advanced remote-sensing technologies in Canada.
| Ukeme Nsikak Essien | Communication in Physical Sciences | 2025-12-13
Reviews precision forestry combining remote sensing, artificial intelligence, mechanization, GPS, automation, and emerging traceability technologies.
Reviews how remote sensing can improve harvesting plans, road and skid-trail design, soil protection, forest disturbance monitoring, and precision forestry.
| Haoxiang Xu et al. | Sustainability | 2025-11-11
Evaluates remote-sensing methods for estimating forest height, an important variable for carbon accounting, forest inventories, and sustainable management.
Reviews machine-learning applications for forest-health assessment, deforestation detection, wildfire prevention, habitat mapping, and sustainable management.
| — | Remote Sensing Applications: Society and Environment | 2025-04
Combines LiDAR and PlanetScope imagery to monitor selective logging and compliance with sustainable forest-management plans in the Amazon.
| Guma Ali et al. | Babylonian Journal of Internet of Things | 2025-01-17
Reviews the potential of Internet-of-Things sensors, remote sensing, drones, and artificial intelligence to improve sustainable forest monitoring and decision-making.
| Kevin Beiler, Tobias Cremer and Jan-Peter Mund | ISPRS Archives | 2025
Tests a digital forest-inventory approach combining UAV and personal laser-scanner data to improve measurement of complex forest structure.
Forests, Soil, Water, and Ecosystem Services
| Muyaka Kamamba et al. | Physics and Chemistry of the Earth | 2025-10
Uses remote sensing to investigate relationships among forest cover, plantations, evapotranspiration, water resources, and environmental change in Zambia's Kafue Basin.
| Australian Government | Australia's State of the Forests Report | 2025
Reviews practices for preventing or minimizing soil erosion caused by roads, timber harvesting, and other forest-management activities.
| Australian Government | Australia's State of the Forests Report | 2025
Examines forest-management risks to soil structure, compaction, permeability, density, water-holding capacity, and long-term forest productivity.
Studies how forest and water policies can be integrated to improve sustainable management of interconnected natural resources in India.
| FAO and partners | Sustainable Wildlife Management Programme | 2025
Reviews efforts to combine wildlife conservation, community rights, rural livelihoods, food security, and sustainable management of forest landscapes.
| IUFRO conference organizers | Forests and Water in a Changing Environment | 2025
Summarizes research themes concerning forestry, hydrology, watershed protection, forest restoration, climate change, water security, and ecosystem services.
| FAO | Forest and Water Programme | 2024
Discusses incorporating water objectives into forest management and emphasizes both synergies and trade-offs between timber production and watershed protection.
| FAO | Food and Agriculture Organization of the United Nations | n.d.
Explains why protecting forest soils, watersheds, stream quality, and hydrological functions is a central component of sustainable forestry.
| FAO | Forest and Water Programme | n.d.
Examines integrated forest-water management and the role of sustainably managed forests in protecting water quality, quantity, timing, and watershed resilience.
| FAO | Forest and Water Programme | n.d.
Describes integrated watershed-management, capacity-building, technical-advice, and policy activities linking forestry with water security.
Restoration, Plantations, Agroforestry, and Forest Regeneration
| H.A. Tesema, J. Durai and A.N. Alamerew | Discover Sustainability | 2025-11-26
Reviews bamboo biomass estimation methods and emerging technologies relevant to carbon accounting, climate mitigation, and sustainable forest management.
| Toshiaki Owari et al. | Springer Nature | 2025-10-01
Introduces decades of stand-based silvicultural management research designed to balance timber production, biodiversity, ecosystem function, and resilience in Japan.
| E. Garedew et al. | Discover Agriculture | 2025-07-18
Evaluates seedling survival and plantation performance in Ethiopian forest-landscape restoration and considers implications for sustainable forest recovery.
| — | Environmental and Sustainability Indicators | 2025-06
Combines remote sensing with field measurements to estimate biomass and carbon in Ethiopian plantation forests for sustainable management and climate planning.
| Alejandra Schueftan et al. | Buildings | 2025-05-29
Explores how innovative native-timber products and integrated design can strengthen demand for locally sourced wood while supporting sustainable forest management.
| FAO | AIM4Forests | 2025-03-11
Describes efforts in Zambia to combine forest inventories, monitoring, technical training, and long-term management planning.
| Diogenis A. Kiziridis et al. | Forests | 2025-02-15
Reviews conflicts and trade-offs between biomass production, timber use, biodiversity, carbon sequestration, and other ecosystem services in multifunctional forestry.
| Government of Kenya | National Agroforestry Strategy 2025–2035 | 2025
Presents Kenya's strategy for integrating trees into farms and rangelands to increase forest cover, support livelihoods, restore landscapes, and reduce pressure on natural forests.
| — | Trees, Forests and People | 2025
Reviews how community-based forest management can enhance social, ecological, economic, and disaster resilience amid climate change, biodiversity loss, and pollution.
| — | DiRROS / Forestry publication | 2024-01-01
Reviews community forestry and agroforestry approaches, highlighting participation, education, institutions, biodiversity, livelihoods, and market access.
Sustainable Forestry Policy, Governance, and Economics
| State Department for Forestry | Government of Kenya | 2026-05-29
Describes Kenyan forest-law reforms involving sustainable management, restoration, climate resilience, carbon finance, ecosystem-service payments, community participation, and natural-capital accounting.
| European Commission | European Union | 2026
Reviews European progress toward sustainable forest management, increased forest biodiversity, expanded forest cover, and protection of primary and old-growth forests.
| — | Asia Europe Journal | 2025-12-12
Examines how European Union policies and cooperation influence ASEAN approaches to sustainable forest management, forest products, biodiversity, and climate policy.
Reviews the interaction among forest governance, competing land uses, tenure, Indigenous and community participation, benefit sharing, and sustainable forestry using Kenya as a case study.
| — | Forest Policy and Economics | 2025-09
Develops a forest-planning model for balancing timber production, silvicultural treatments, harvesting schedules, economic returns, and carbon sequestration.
| Caihong Tang et al. | Forest Policy and Economics | 2025
Examines relationships among economic growth, agricultural expansion, population change, and forest loss across ASEAN countries.
| Government of Malawi | United Nations Forum on Forests | 2025
Reports national progress and governance measures connected with sustainable forest management, forest law enforcement, policy coordination, and stakeholder involvement.
| Government of Kenya | United Nations Forum on Forests | 2025
Reviews Kenya's implementation of sustainable forest-management indicators, stakeholder consultation, community participation, forest policy, and national forest goals.
| — | Forest Ecology and Management | 2016
Compares certified community forests with other management regimes in Tanzania and finds evidence that forest certification can contribute to biodiversity conservation.
| State Department for Forestry | Government of Kenya | n.d.
Describes Kenya's REDD+ framework for reducing deforestation and degradation while supporting forest conservation, carbon-stock enhancement, sustainable management, and climate finance.
Selective Logging, Retention Forestry, and Sustainable Harvesting
| Satoshi Yamanaka et al. | Forest Ecology and Management | 2025-10-01
Investigates tree retention in harvested conifer plantations and shows how retained living trees and snags can conserve saproxylic beetle communities.
| — | Scandinavian Journal of Forest Research | 2025-08-14
Reviews how production-tree density around retained habitat trees affects biodiversity and identifies significant knowledge gaps in managing retention trees over complete forest rotations.
| — | Global Change Biology | 2025
Compares biodiversity responses under multiple forest-management systems globally and finds that selective cutting and agroforestry generally maintain more biodiversity than intensive plantation systems.
| — | Biological Conservation | 2024-11
Studies habitat features on retained broadleaf trees in Swedish production forests and finds that older retained trees provide especially diverse microhabitats.
| Kangyu So et al. | Science of the Total Environment | 2024-10-15
Evaluates retention forestry as a climate-management strategy by measuring biomass, soil carbon, nitrogen, and albedo responses to different retention patterns.
| Workneh et al. | International Journal of Forestry Research | 2024-09-21
Evaluates selective harvesting in Ethiopia's Menagesha Suba Forest and shows how poorly controlled harvesting can affect woody-plant diversity, forest structure, and natural regeneration.
| — | Global Ecology and Conservation | 2024-09
Examines very low-intensity selective logging in Gabon and finds that logging changes tree species and functional composition even where several important ecosystem services remain comparatively resilient.
| — | Forestry: An International Journal of Forest Research | 2024-07-10
Models close-to-nature management of tropical timber plantations and finds that mixed species, selective harvesting, retention, and shelterwood systems can combine economic viability with biodiversity benefits.
| Kenichi Ozaki et al. | Forest Ecology and Management | 2024-06-15
Reviews a long-term Japanese experiment showing how retention forestry can reduce biodiversity impacts from plantation harvesting while limiting economic losses.
| — | Agricultural and Forest Meteorology | 2024-05-01
Finds that retention forestry can buffer extreme temperatures in boreal forests, especially when canopy cover, tree diversity, and standing deadwood are maintained.
Forest Roads, Harvesting Damage, Soil, and Water
| — | Journal of Environmental Management | 2026-01-01
Models future runoff and erosion from forest roads under climate scenarios and evaluates gravel and compacted road surfaces as erosion-control strategies.
| Muhamad Nazrain Buniran et al. | Global Forest Journal | 2026
Provides a systematic review and meta-analysis of erosion associated with forest roads and skid trails and discusses implications for sustainable forestry operations.
| Saeid Rahbarisisakht et al. | Current Forestry Reports | 2025-06-06
Reviews climate threats to forest-road networks and proposes strategies for maintaining sustainable timber transportation while reducing erosion and infrastructure vulnerability.
| Kıvanç Yüksel et al. | International Journal of Sediment Research | 2025-06
Tests wood residues, hydroseeding, and jute geotextiles for stabilizing forest-road slopes and reducing runoff and sediment loss.
| Christopher Pohle and Dirk Jaeger | European Journal of Forest Research | 2025-05-03
Compares forest-road water-management guidelines internationally and evaluates how road design needs to adapt to changing precipitation regimes.
| Anna Chrobak-Žuffová and Kazimierz Krzemień | Earth Surface Processes and Landforms | 2025-01-29
Measures erosion on mountain forest roads in Poland and finds that road use intensity can strongly influence rates of soil loss.
| Georgia Forestry Commission | Georgia Forestry Commission | 2025
Reports statewide monitoring of forestry best management practices covering timber harvesting, forest roads, stream crossings, and streamside management zones.
Maps erosion hot spots on forest roads in Iran's Zagros forests and identifies road design, geology, precipitation, and road width as important drivers of sediment production.
| Jinhai Yu et al. | Forests | 2024-02-28
Reviews the production, transport, and ecological effects of sediment generated by forest roads and identifies methods for reducing road-related erosion.
| — | Forest Ecology and Management | 2024
Compares biomass and conventional timber harvest sites in the southeastern United States and finds that strong forestry best-management-practice implementation substantially reduces erosion risks.
Fire, Thinning, and Forest Resilience
| Zachary Steel and Brandon M. Collins | U.S. Forest Service | 2025-12-10
Examines managed wildfire as an ecological tool and argues that varied fire severity and frequency can support both biodiversity and resilient forest landscapes.
| Jenna Zukswert et al. | U.S. Forest Service | 2025-06-10
Examines shelterwood harvesting combined with prescribed fire as a method for restoring oak regeneration in central hardwood forests.
| Todd Hutchinson and Andrea Brandon | U.S. Forest Service | 2025-05-09
Summarizes two decades of research showing how repeated prescribed fire can restore oak regeneration, ground-layer diversity, and more fire-resilient forest structure.
Reviews wildfire patterns, drivers, ecological impacts, policies, and management strategies in Kenya and highlights the importance of incorporating local and Indigenous fire knowledge.
| Jerry S. Cole et al. | Forest Ecology and Management / U.S. Forest Service | 2025
Finds that mechanical thinning and prescribed fire can produce long-lasting benefits for bumble bees and butterflies in northern California conifer forests.
| Damon B. Lesmeister et al. | Journal of Environmental Management / U.S. Forest Service | 2025
Examines how fire refugia can help reconcile wildfire-risk reduction with conservation of older forest habitats and species such as the northern spotted owl.
| Gina R. Cova et al. | Forest Ecology and Management / U.S. Forest Service | 2025
Evaluates the implications of recent Pacific Northwest wildfires for ecosystem-oriented management under the Northwest Forest Plan.
| Gavin M. Jones et al. | Forest Ecology and Management / U.S. Forest Service | 2025
Finds that prescribed fire, managed wildfire, and previous fires substantially reduced severity during the massive 2022 Black Fire in New Mexico.
| Paige V. Kouba et al. | Forest Ecology and Management / U.S. Forest Service | 2025
Shows how prescribed and natural fire can help restore historically fire-adapted structure in Eastern Sierra Jeffrey pine forests.
| David W. Peterson et al. | Forest Ecology and Management / U.S. Forest Service | 2025
Evaluates mechanical mastication followed by prescribed burning and finds that combining the treatments can reduce canopy, ladder, and surface fuels.
Climate Adaptation and Assisted Migration
| Christopher C. Riely et al. | Journal of Forestry | 2025-04-28
Documents an operational assisted-migration planting in southern New England and reports lessons from ten growing seasons of monitoring.
| — | Journal of Environmental Management | 2025-03
Tests assisted migration of tropical cloud-forest trees and evaluates how climatic transfer distances influence seedling survival and growth.
| Michelle Agne and Robert A. Slesak | Journal of Forestry / U.S. Forest Service | 2025
Surveys western U.S. forest managers about assisted migration, climate-adapted seed sourcing, altered planting densities, and barriers to implementation.
| Swedish University of Agricultural Sciences | SLU | 2025
Describes research evaluating ecological, legal, and social dimensions of moving tree species and populations to create more climate-adapted forests.
| Natural Resources Canada | Government of Canada | 2025
Reviews Canada's assisted-migration approaches and the use of revised seed-transfer guidelines to align reforestation with projected climates.
| Michelle C. Agne et al. | U.S. Forest Service | 2025
Describes the Experimental Network for Assisted Migration and Establishment Silviculture, a major western U.S. research network testing climate-informed reforestation.
| Eric J. Gustafson et al. | Conservation Biology / U.S. Forest Service | 2025
Models interactions between assisted tree migration, future climate, and deer browsing to determine when climate-adaptation planting is likely to succeed.
| Wenhuan Xu and Cindy E. Prescott | Forest Ecology and Management | 2024-03-15
Reviews assisted migration as a forestry adaptation strategy, including benefits for productivity and resilience and risks of maladaptation or invasiveness.
| — | Nature Climate Change | 2024
Models assisted migration of European forest trees and finds that climate-adapted seed provenances could help maintain forest carbon sequestration under future warming.
| USDA Climate Hubs | U.S. Department of Agriculture | n.d.
Explains assisted population migration, range expansion, and species migration as options for adapting forest regeneration to rapidly changing climates.
Mixed Forests and Continuous-Cover Forestry
| Norul Sobuj, Matthias Peichl and Arne Pommerening | Forest Ecology and Management | 2026-07-15
Synthesizes evidence on continuous-cover forestry and carbon sequestration in trees, understory vegetation, and soils and cautions against overly intensive interventions.
| — | Communications Biology | 2026
Meta-analyzes thousands of observations and finds that tree-species mixtures can enhance biomass accumulation, soil organic carbon, nutrient availability, and microbial biomass.
| — | Forest Ecosystems | 2025-12
Reviews the origins and principles of modern continuous-cover forestry, including selective harvesting, natural regeneration, and avoidance of large-scale clearfelling.
| Evangelos G. Kotsonas and Dimitrios E. Bakaloudis | Forest Ecology and Management | 2025-11-01
Studies bird communities in a southeastern European fir forest managed with continuous-cover forestry and evaluates responses to different harvesting histories.
| Swedish University of Agricultural Sciences | SLU | 2025-07-03
Summarizes a systematic Swedish review finding that continuous-cover forestry often provides better biodiversity conditions than conventional clear-cut forestry.
| — | Biological Conservation | 2025-07
Systematically reviews single- versus mixed-species plantations and finds that mixtures generally support greater biodiversity, although outcomes depend strongly on context.
| Swedish University of Agricultural Sciences | SLU | 2025
Describes research comparing continuous-cover systems in terms of timber production, carbon sequestration, and biodiversity in boreal forests.
| Lydie-Stella Koutika et al. | PLOS One | 2024-10-10
Examines how mixed-species plantations affect soil fungal diversity and community composition in the coastal plains of the Republic of the Congo.
| Johannes Mohr et al. | Forest Ecology and Management | 2024-05-01
Compares Austrian forest landscapes and finds lower disturbance rates, frequencies, and patch sizes in uneven-aged forests than in comparable even-aged forests.
| — | Soil Biology and Biochemistry | 2024-04
Finds that incorporating nitrogen-fixing trees into mixed plantations can improve nutrient cycling and help maintain ecosystem carbon-nitrogen-phosphorus balance.
Carbon, Wood Products, and the Forest Bioeconomy
| European Forest Institute | EFI | 2026-07-10
Explains harvested wood products as carbon-storage and renewable-material pools and discusses uncertainties surrounding their contribution to climate mitigation.
| Zichun Wang et al. | Forest Ecology and Management | 2026-03-15
Examines thinning effects on forest carbon and finds that treatment intensity, harvest method, tree growth, and soil properties determine long-term carbon outcomes.
| — | Cleaner Waste Systems | 2025-12
Systematically reviews the full life cycle of harvested wood products used in construction, including carbon storage, substitution benefits, reuse, and end-of-life management.
| Thomas P. Sullivan et al. | Forest Ecology and Management | 2025-07-01
Reports 30-year effects of lodgepole-pine thinning and finds that heavy thinning can accelerate large-tree development while supporting several old-forest characteristics.
| — | Journal of Environmental Management | 2025-01
Models how harvested wood should be distributed among competing uses to maximize carbon storage and greenhouse-gas reductions.
| Phillip J. van Mantgem et al. | Forest Ecology and Management / U.S. Geological Survey | 2025
Evaluates restoration thinning in secondary coastal redwood forests and examines the trade-off between short-term carbon removal and longer-term restoration goals.
| — | Frontiers in Built Environment | 2025
Examines cascading use of timber and harvested wood products as a strategy for increasing material efficiency and climate-mitigation benefits.
| — | Forest Policy and Economics | 2025
Compares Nordic strategies for carbon storage in forests and harvested wood products and evaluates economic trade-offs between harvesting and retaining forest carbon.
| — | Nature Communications | 2025
Models whether temperate forests can simultaneously satisfy rising wood demand and climate-mitigation goals through afforestation, higher productivity, and greater material circularity.
| — | Resources, Conservation and Recycling | 2024
Reviews the climate benefits and limitations of harvested wood products and stresses the importance of product lifetime, lifecycle boundaries, and forest-carbon assumptions.
Governance, Tenure, Legal Timber, and Traceability
Maps timber traceability in Pará, Brazil, and demonstrates continuing gaps between officially documented timber production and observed forest exploitation.
| — | Forest Policy and Economics | 2025-07
Studies property rights in Ethiopian community forests and finds that greater security of forest rights is associated with improved economic benefits for users.
| Ran Huo et al. | Journal of Sustainable Forestry | 2025-06-09
Studies China's forest-tenure reforms and finds that changes in forest-farmer management behavior helped improve vegetation conditions in the Qinling region.
Reviews implementation of forest-tenure reforms in Kenya, including participatory management, Community Forest Associations, and institutional barriers.
| — | Sustainable Development | 2025-04-29
Uses long-term remote-sensing data to examine ecological effects of forest-tenure reform across southern China.
| — | Frontiers in Forests and Global Change | 2025
Uses household data from China to examine how collective forestland-tenure reform affects forestry investment, production efficiency, credit access, and management scale.
| Kenya Forest Service | KFS | 2025
Describes a Kenya-Japan program promoting sustainable forest management, landscape restoration, commercial forestry, drought-resistant trees, and timber traceability.
| — | Trees, Forests and People | 2024
Reviews timber-tracing methods for combating illegal logging in Africa, including digital systems, wood identification, legislation, and integrated monitoring.
| Mirella Elias | Bulletin of the Transilvania University of Brasov | 2024
Reviews timber-traceability technologies including RFID, QR codes, GPS, DNA fingerprinting, smartphones, machine learning, and computer vision.
| World Resources Institute | WRI | 2023
Provides a practical framework for designing timber-traceability systems capable of demonstrating legal origin, reducing illegal logging, and improving forest governance.
Indigenous Knowledge, Community Forestry, and Non-Timber Forest Products
| — | Trees, Forests and People | 2026
Documents household use of non-timber forest products in the Democratic Republic of the Congo and cautions that commercialization requires monitoring of harvest sustainability.
| Ndidzulafhi Innocent Sinthumule | Human Ecology | 2025-10-01
Examines traditional ecological knowledge used to regulate collection of non-timber forest products on communal lands in Limpopo, South Africa.
| — | Ecological Frontiers | 2025-10
Systematically reviews the poverty-reduction potential of non-timber forest products and stresses the importance of market access, ecological limits, and supportive institutions.
| Alexis Mizero et al. | Jurnal Manajemen Hutan Tropika | 2025-09-28
Studies relationships between non-timber forest products and household welfare in Rwanda and considers implications for forest-dependent livelihoods.
| Ana Maria Monsalve Cuartas et al. | Human Ecology | 2025-09-24
Examines cultural fire among five Indigenous Peoples in Colombia and argues that Indigenous fire knowledge should play a larger role in sustainable forest governance.
| Helina Jolly et al. | Environment and Planning E: Nature and Space | 2025-04-13
Documents Adivasi cultural burning in southern India and examines fire as a tool for maintaining forest health, mobility, native vegetation, and human-wildlife coexistence.
| P.U. Ancha et al. | Asian Journal of Research in Agriculture and Forestry | 2025-04-12
Studies the importance of non-timber forest products to rural households in Nigeria and recommends sustainable harvesting and community-led conservation.
Documents traditional ecological knowledge relevant to biodiversity conservation, woodland restoration, charcoal production, and sustainable management of miombo forests in the Democratic Republic of the Congo.
| Nur Wahyu Utami et al. | Agric | 2025
Examines the economic contribution of non-timber forest products and agroforestry to households living in Indonesian forest communities.
Reviews 2015–2025 trends linking non-timber forest products, livelihood security, biodiversity conservation, processing, markets, tenure, and certification.
Natural Regeneration, Restoration, and Older Forests
| — | Trees, Forests and People | 2025-06
Reviews assisted natural regeneration projects in the Philippines and identifies funding, livelihoods, policy, governance, fire, and monitoring as major determinants of success.
| — | Biological Conservation | 2025-06
Estimates carbon stocks in mature and old-growth U.S. forests and assesses how protection from commercial logging could affect long-term forest carbon storage.
| Robin L. Chazdon et al. | Nature Reviews Biodiversity | 2025-04-22
Reviews the ecological and socioeconomic drivers of tropical forest natural regeneration and its potential benefits for biodiversity, carbon, livelihoods, and ecosystem services.
| Scottish Forestry | Scottish Government | 2025-02-22
Provides sustainable woodland-management guidance covering natural regeneration, biodiversity, climate resilience, pests, storms, wildfire, invasive species, and habitat connectivity.
| Ethan A. Frye et al. | Journal of Forestry | 2025-01-29
Reviews scientific definitions and measurements of second-growth, mature, and old-growth forests and highlights variation in how these terms are applied.
| — | Nature Communications | 2025
Emphasizes the need to distinguish naturally regenerating forests from plantations and other managed tree-cover gains when evaluating restoration and climate outcomes.
| Matthew D. Petrie et al. | Forest Science / U.S. Forest Service | 2025
Examines natural ponderosa-pine regeneration across southwestern U.S. forests and evaluates how restoration and wildfire-risk treatments influence future tree recruitment.
| FAO | Food and Agriculture Organization of the United Nations | n.d.
Explains assisted natural regeneration techniques including protection of natural seedlings, disturbance control, enrichment planting, and community participation.
| FAO | Sustainable Forest Management Toolbox | n.d.
Explains restoration options ranging from natural regeneration and assisted regeneration to enrichment planting and active reforestation of severely degraded forests.
| Forest Research | United Kingdom | n.d.
Reviews how natural regeneration can contribute to genetically diverse and climate-resilient woodlands while noting constraints such as browsing, seed supply, pests, and light availability.
Biodiversity, Ecosystem Services, and Sustainable-Forestry Standards
| — | Current Forestry Reports | 2026
Reviews closer-to-nature forestry in Central Europe and evaluates its potential to reconcile biodiversity, timber production, climate adaptation, and ecosystem-service goals.
| Unai Ortega-Barrueta et al. | Ecosystem Services | 2025-12
Compares management regimes in Spain's Urdaibai Biosphere Reserve and finds that natural regeneration and closer-to-nature forestry can improve ecosystem-service multifunctionality.
| Lydwin Freija Wagenaar et al. | Forest Ecology and Management | 2025-11-15
Meta-reviews relationships between forest structure and biodiversity and finds consistent benefits associated with old trees, cavities, deadwood, and large seed-producing trees.
| — | Trees, Forests and People | 2025-09
Uses multicriteria optimization to balance recreation, timber production, structural stability, and biodiversity in forests surrounding a historic Slovakian town.
| — | Journal of Environmental Management | 2025-09
Shows how private forest-owner preferences influence timber production, carbon storage, biodiversity, and adoption of less-intensive management systems.
Maps relationships between forest-management types and ecosystem services such as carbon storage and water yield in the southeastern and northwestern United States.
| Philip J. Burton | Resilient Forest Management, Oxford University Press | 2025-02-20
Traces the transition from sustained-yield timber forestry toward adaptive sustainable forest management that attempts to maintain multiple ecological, social, and economic values.
| — | Biodiversity and Conservation | 2024
Reviews management strategies for creating structural heterogeneity and multi-taxon biodiversity in European forests, including retention trees, deadwood, and habitat features.
| Programme for the Endorsement of Forest Certification | PEFC | 2024
Provides PEFC's international benchmark requirements and criteria for sustainable forest management used in evaluating national forest-certification systems.
| Forest Stewardship Council | FSC | 2024-2028
Documents the ongoing revision of FSC's Principles, Criteria, and indicators governing environmentally appropriate, socially beneficial, and economically viable forest management.
