Chinese Scientist Fu Bojie Wins 2026 Volvo Environment Prize
A Chinese ecologist has won one of the world's most prestigious environmental awards for research that fundamentally changed how large-scale land restoration projects are designed and managed. Professor Bojie Fu, an academician at the Chinese Academy of Sciences, received the 2026 Volvo Environment Prize in recognition of work that helped transform China's Loess Plateau from one of the most degraded landscapes on Earth into a model for sustainable ecological recovery.
The prize recognises Fu's contributions to understanding how restored ecosystems can survive within natural resource limits. Specifically, his research revealed a critical tension in restoration projects: planting vegetation reduces soil erosion and stores carbon, but it can also consume too much water and threaten long-term viability in dry regions.
For UK businesses working on nature recovery, supply chain sustainability, or carbon offset projects, Fu's work offers a practical warning. Adding trees or grassland delivers environmental benefits only if the underlying ecosystem can support that vegetation over decades. Projects that ignore water availability, soil capacity, or local community needs risk failure regardless of initial investment.
Recognition for bridging science and policy
The Volvo Environment Prize Foundation announced Fu as the 2026 laureate on September 23, 2026. He received the award at a ceremony in Stockholm on November 2, along with a handcrafted diploma, a glass sculpture, and a prize of SEK 1.5 million.
The prize jury highlighted Fu's ability to connect local restoration projects with global sustainable development goals. Consequently, his work demonstrates what the jury described as "pioneering contributions to social-ecological systems and sustainability science." The Chinese Academy of Sciences noted that the award reflected Fu's role in completing the full cycle from scientific research through policy development to practical implementation.
Fu serves as a professor of geography and landscape ecology at the Research Center for Eco-Environmental Sciences of the Chinese Academy of Sciences. In addition, he works as a doctoral supervisor at the University of Chinese Academy of Sciences. His research teams have spent decades studying how land-use changes affect soil, water, vegetation, and human communities across China's drylands.
The Loess Plateau restoration challenge
The Loess Plateau covers roughly 640,000 square kilometres in northern China. Its soils are made of wind-deposited loess, which is extremely fertile but also highly erodible. Centuries of intensive farming, deforestation, and grazing caused severe soil erosion, sediment pollution, and declining agricultural productivity.
China launched major conservation programs in response, including terracing, reforestation, grazing restrictions, and the Grain for Green initiative. These efforts significantly increased vegetation cover and reduced erosion rates. However, they also created a new problem: whether newly planted vegetation could survive within the plateau's limited annual rainfall.
The Volvo Environment Prize Foundation described the plateau restoration as a complex, long-term undertaking. Simply increasing vegetation cover was not enough to guarantee sustainable recovery. Instead, restoration planners needed to understand how different land uses affected water cycles, soil health, and local livelihoods over multiple decades.
This question has direct relevance to nature-based solutions being developed in the UK. For example, businesses investing in woodland creation, peatland restoration, or biodiversity net gain projects must consider whether those interventions can sustain themselves without ongoing inputs. Fu's research provides a framework for making those assessments.
How Fu's research changed restoration planning
Fu and his research teams used long-term field observations, remote sensing, spatial modelling, and landscape-scale analysis to study restoration outcomes. Their work examined soil moisture and nutrient cycles, soil erosion and sediment movement, vegetation recovery, carbon storage, biodiversity, water availability, ecosystem services, and local livelihoods.
The Chinese Academy of Sciences said Fu developed a pattern-process-service-sustainability analytical framework. This approach links the spatial pattern of land use with ecological processes, the benefits provided by ecosystems, and the long-term sustainability of restoration measures. Therefore, it allows planners to evaluate whether a restoration design will actually persist once initial funding ends.
One of Fu's major findings concerned the trade-off between vegetation recovery and water supply. Restoring vegetation reduces erosion, increases carbon sequestration, and supports biodiversity. Nevertheless, planting inappropriate species or planting too densely can consume excessive soil water and threaten long-term ecosystem stability.
His research helped shift restoration planning away from maximising tree or grass cover as a primary goal. Instead, it encouraged land-use strategies adapted to local rainfall, soil conditions, water availability, and community needs. Consequently, restoration targets became based on ecological capacity rather than uniform planting densities.
For UK businesses, this finding has practical implications. Companies developing carbon offsetting projects or nature recovery schemes often measure success by hectares planted or tonnes of carbon sequestered. However, Fu's work suggests those metrics alone do not indicate whether a project will deliver benefits over the long term. Understanding water constraints, soil conditions, and ecosystem service trade-offs is equally important.
Commercial implications for UK businesses
Fu's research has several direct applications for UK businesses engaged in sustainability programs, particularly those involving land use, carbon sequestration, biodiversity net gain, or supply chain resilience.
First, companies investing in nature-based carbon offsetting need to assess whether projects can sustain vegetation growth without external irrigation or fertiliser inputs. Projects located in water-stressed regions or on degraded soils may not deliver the carbon sequestration promised unless restoration designs account for hydrological and nutrient constraints. Therefore, due diligence should include assessment of long-term resource availability, not just initial planting success.
Second, businesses subject to biodiversity net gain requirements under the Environment Act 2021 must demonstrate that habitat creation delivers measurable, lasting improvements. Fu's framework provides a model for evaluating whether habitat interventions can persist over the 30-year monitoring period required by UK regulations. Consequently, businesses may need to adjust restoration plans to match site conditions rather than applying generic planting schedules.
Third, supply chain sustainability is increasingly linked to land management practices. UK businesses sourcing agricultural or forestry products from regions with degraded soils or water stress face growing risks of supply disruption. Understanding the principles Fu applied on the Loess Plateau can help businesses assess whether suppliers' land management practices are genuinely sustainable or likely to fail under environmental stress.
Fourth, companies developing nature recovery projects as part of corporate sustainability strategies should consider trade-offs between different ecosystem services. For example, planting trees to sequester carbon might reduce water availability for downstream users or reduce biodiversity if non-native species are used. Fu's research demonstrates the importance of balancing multiple objectives rather than optimising for a single metric.
Finally, businesses tendering for public sector contracts increasingly face requirements related to environmental management and nature recovery. Carbon reporting compliance and biodiversity commitments are now common in procurement frameworks. Demonstrating an understanding of sustainable restoration principles, including resource constraints and ecosystem service trade-offs, can strengthen tender responses and reduce delivery risk.
What the Loess Plateau experience reveals
- Professor Bojie Fu received the 2026 Volvo Environment Prize for research on ecological restoration in China's Loess Plateau, announced September 23 and awarded in Stockholm on November 2.
- The prize recognises his work on social-ecological systems and sustainability science, specifically how to balance vegetation recovery with water availability and local livelihoods.
- Fu developed a framework linking land-use patterns, ecological processes, ecosystem services, and long-term sustainability to guide restoration planning.
- His research revealed that planting vegetation without considering water constraints can threaten ecosystem stability, even if it initially reduces erosion and stores carbon.
- The Loess Plateau restoration demonstrates that successful land recovery depends on matching restoration designs to the ecological capacity of each landscape, particularly in water-limited regions.
- Fu's work provides a scientific basis for evaluating whether nature-based projects can sustain themselves over decades without ongoing external inputs.
- The prize value was SEK 1.5 million, and Fu is based at the Research Center for Eco-Environmental Sciences of the Chinese Academy of Sciences.
Applying restoration science to business sustainability
The broader significance of Fu's award is its emphasis on resource constraints and ecosystem service trade-offs. Earlier restoration strategies often focused on visible improvements such as tree planting and increased vegetation cover. Fu's research demonstrates that successful restoration must also account for water limits, soil capacity, and the well-being of communities living in restored landscapes.
This approach is particularly relevant to dryland regions facing land degradation, water scarcity, and food insecurity. The prize jury noted that Fu's decades of work in the Loess Plateau and other dryland areas had generated lessons with international relevance. Therefore, businesses operating in or sourcing from semi-arid regions can apply similar analytical frameworks to assess project viability.
The research also illustrates the importance of connecting scientific monitoring with public policy. Restoration programs operate over large areas and across decades. Consequently, they require field data combined with satellite observations, ecological models, and assessments of human needs. Fu's work provided a framework for evaluating not only whether land became greener, but whether that greening remained hydrologically and socially sustainable.
For UK businesses, this means that ESG compliance and environmental reporting should include assessment of whether sustainability initiatives are genuinely durable. Reporting metrics such as hectares restored, trees planted, or carbon sequestered provide useful baselines. However, they do not demonstrate whether those outcomes can persist without ongoing management or external resource inputs.
Businesses developing internal sustainability strategies or responding to investor expectations should therefore consider incorporating long-term viability assessments into project planning. This might include hydrological modelling for tree planting projects, soil capacity assessments for regenerative agriculture initiatives, or ecosystem service trade-off analysis for biodiversity net gain schemes.
Moreover, the Loess Plateau experience shows that restoration targets should be based on the ecological capacity of each landscape rather than uniform goals. In water-limited areas, the most durable results may come from carefully selecting vegetation, optimising land-use patterns, and protecting soil and water resources simultaneously. Businesses can apply this principle by tailoring sustainability interventions to site-specific conditions rather than adopting generic approaches.
Lessons for nature-based climate action
Fu's award arrives as governments worldwide expand nature restoration and climate adaptation programs. The UK government has committed to significant woodland creation, peatland restoration, and habitat recovery as part of its net zero strategy. Businesses are increasingly involved in delivering these outcomes through carbon offsetting, biodiversity net gain, and supply chain sustainability initiatives.
The central lesson from the Loess Plateau is that degraded land can be restored, but restoration is most effective when ecological processes, economic needs, and long-term resource limits are considered together. Fu's work has helped turn that principle into a scientific and policy framework with potential applications well beyond China.
For businesses, this means that nature-based solutions must be evaluated not only on initial costs and projected benefits, but also on long-term resilience and resource requirements. Projects that appear cost-effective in the short term may fail if they exceed the ecological capacity of the site or if they create unintended trade-offs between different environmental objectives.
Consequently, businesses should seek to understand the underlying ecological constraints affecting their sustainability projects. This might involve engaging with ecological consultants, using spatial modelling tools, or conducting long-term monitoring to assess whether interventions are performing as expected. Nature-positive investment strategies should incorporate these assessments to reduce risk and improve outcomes.
The Loess Plateau experience also highlights the importance of integrating local community needs into restoration planning. Projects that improve environmental conditions but undermine local livelihoods are unlikely to succeed over the long term. Therefore, businesses developing nature recovery schemes should engage with local stakeholders, understand existing land uses, and design interventions that deliver benefits to both ecosystems and communities.
Where to find further information
Businesses seeking additional detail on ecological restoration principles and sustainability science can consult several authoritative sources. The Department for Energy Security and Net Zero provides guidance on nature-based solutions and carbon sequestration in the UK context.
The Environment Act 2021 sets out the statutory framework for biodiversity net gain and environmental improvement plans. Understanding these requirements is essential for businesses subject to planning obligations or environmental reporting duties.
For detailed information on sustainable land management and ecosystem service trade-offs, the Natural England website offers technical guidance and case studies. Similarly, the Climate Change Committee publishes analysis on land use, carbon sequestration, and climate adaptation relevant to UK businesses.
Businesses developing international supply chain sustainability programs may also benefit from reviewing IUCN resources on ecological restoration standards and nature-based solutions. These materials provide frameworks for assessing project viability and long-term sustainability in diverse ecological and social contexts.