The comprehensive study analyzed 84 coniferous forest sites stretching over a broad thermal gradient, from frigid regions averaging −4.4°C to temperate zones at 18.2°C in mean annual temperature. The researchers integrated carbon flux data with detailed observations of xylem phenology, the process governing stem growth, to unravel how warming influences the timing and duration of carbon acquisition and allocation. Their findings reveal a complex but crucial decoupling triggered by rising temperatures, wherein carbon assimilation periods lengthen disproportionately to growth phases, indicating an intensification of source-sink mismatch.

At the core of these dynamics lies the phenology of photosynthesis—the process by which conifers fix carbon dioxide—and stem growth, which operationalizes carbon storage in woody biomass. Under warming scenarios, photosynthesis onset advances more rapidly than stem growth, by approximately twice the pace. Specifically, stem growth onset advances by 2.3 days per degree Celsius, while photosynthesis accelerates at a rate twice as fast. This difference in response times suggests that carbon assimilation begins substantially earlier relative to the start of carbon storage activities, which may affect the overall efficiency of carbon uptake.

Diving deeper, this phenological dissonance is underpinned by how trees interpret and respond to temperature cues following winter dormancy. Warmer environments tend to offer reduced chilling periods, a critical requirement for conifers to reset their internal clocks after dormancy. When chilling requirements are not fully met, trees necessitate the accumulation of additional heat—a process quantified by growing degree days (GDD)—to reactivate photosynthesis and growth. Thus, paradoxically, while warmer sites see earlier onset of photosynthesis, the initiation of stem growth lags comparatively behind, reflecting complex physiological constraints.

The study further illustrates that warmer temperatures elongate both photosynthesis and wood formation seasons by delaying their respective terminations in autumn. On average, the cessation of photosynthesis and wood formation is delayed by about 2.0 days per degree Celsius increase. Nonetheless, the extension of photosynthesis length surpasses that of wood formation by roughly one month when moving from colder to warmer sites, reinforcing the imbalance in carbon source-sink phenology.

Implications of this growing mismatch are profound. Forest ecosystems traditionally act as significant carbon sinks, mitigating atmospheric CO2 concentrations. If photosynthesis proceeds in advance of or outlasts active growth periods, much of the assimilated carbon may remain in transient pools such as leaves or be respired back to the atmosphere rather than being sequestered long-term in woody biomass. This decoupling may weaken the carbon sink strength of conifer-dominated forests, with feedbacks exacerbating climate change.

Moreover, the phenological lag between carbon sources and sinks may influence ecosystem stability and resilience. Carbon immobilized in wood is critical for sustaining forest structure and function. Disrupted timing could impair tree vigor, regeneration, and ultimately survival, especially under the additional stresses posed by drought, pathogen outbreaks, and extreme weather events increasingly associated with warming climates.

The scope of this investigation extends to resetting long-held assumptions about how forests will respond to climate warming. While longer growing seasons have often been linked with amplified carbon sequestration, this research highlights the nuance that source-sink coordination is equally vital for predicting net carbon balance. It reminds scientists and policymakers to consider not only the duration but also the synchronicity of photosynthetic and growth phases in ecosystem models.

Technically, this study stands out due to its extensive cross-continental dataset encompassing diverse climate regimes. By leveraging the integration of eddy covariance carbon flux measurements with precise phenological monitoring of xylem development, the researchers present an unprecedented characterization of how thermal gradients sculpt carbon dynamics in boreal and temperate conifers. Such integrative approaches are vital for understanding the mechanistic underpinnings of ecosystem responses to global warming.

Furthermore, the findings emphasize the importance of chilling accumulation in regulating phenophases. Reduced chilling under warmer winters imposes physiological gating on growth reactivation, underscoring chilling as a critical, yet often overlooked, driver of phenological responses. This thermal dependency may vary distinctly among species and geographic locations, suggesting differential vulnerability within conifer forests.

These outcomes signal a pressing need to refine predictive vegetation models by incorporating phenological mismatches and chilling requirements. Current models that do not account for these aspects risk overestimating carbon sink potential under warming scenarios, potentially leading to misguided climate adaptation strategies. Integrating phenology-resolved source and sink dynamics will enhance the accuracy of future carbon budget forecasts.

The research also sheds light on potential mitigation avenues. Forest management practices that enhance resilience to phenological decoupling—such as promoting genetic diversity and selecting species with adaptive phenological traits—may offset anticipated declines in carbon storage efficiency. Monitoring and understanding local chilling and heat accumulation dynamics can inform adaptive silviculture and conservation strategies.

In conclusion, this study fundamentally deepens our understanding of the intricate interplay between climate warming and forest carbon dynamics. By documenting how elevated temperatures create mismatched timing between carbon uptake and allocation in Northern Hemisphere conifers, it uncovers a critical bottleneck for forest carbon sequestration under future climate conditions. This highlights the complexity of terrestrial ecosystem responses and reinforces the importance of phenological research in shaping climate mitigation policies.

Ultimately, warming does not simply extend the growing season in a uniformly positive manner for carbon sequestration. Instead, it orchestrates a nuanced reordering of ecological rhythms that challenge traditional conceptions of ecosystem productivity. As climate change accelerates, unraveling such phenological intricacies becomes paramount to preserve the vital carbon sinks upon which global climate stability depends.

Subject of Research: Phenological dynamics of carbon sources (photosynthesis) and sinks (stem growth) in Northern Hemisphere conifers along a thermal gradient under climate warming.

Article Title: Warming increases the phenological mismatch between carbon sources and sinks in conifers.

Article References:
Li, X., Silvestro, R., Liang, E. et al. Warming increases the phenological mismatch between carbon sources and sinks in conifers. Nat. Clim. Chang. (2025). https://doi.org/10.1038/s41558-025-02474-z

Image Credits: AI Generated

DOI: https://doi.org/10.1038/s41558-025-02474-z

The research conducted by Almeida, de Almeida, Tagliari, and colleagues examines how disturbances affect the population dynamics of guabiroba trees. Disturbance events, which can range from natural occurrences like wildfires and floods to human-induced activities such as logging and land conversion, can significantly alter forest composition and health. By exploring these disturbances, the researchers reveal patterns that could have profound implications for forest management practices and biodiversity conservation.

Understanding the population dynamics of guabiroba trees is essential since these trees provide a myriad of ecological benefits, from supporting wildlife to sequestering carbon. The study highlights that these trees possess unique adaptive traits, allowing them to thrive in a variety of environmental conditions. This adaptability is particularly evident when examining how different disturbance histories influence the growth patterns and reproductive success of guabiroba trees over time.

One significant finding of the research is the resilience displayed by guabiroba trees in response to disturbances. Researchers observed that trees in less disturbed areas exhibited a robust population structure, with higher growth rates and reproductive success compared to those in heavily disturbed regions. This finding underscores the importance of minimizing human-induced disturbances to maintain healthy populations of this key species.

Moreover, the study draws attention to the role of forest management practices in shaping population dynamics. By implementing sustainable forestry practices that consider the ecological needs of guabiroba trees, forest managers can enhance the resilience of these forests against emerging threats, including climate change. The researchers emphasize the necessity for policymakers to integrate ecological data into their decision-making processes, ensuring that conservation strategies are grounded in scientific evidence.

The study also explores the genetic diversity of guabiroba trees within different disturbance contexts. Genetic diversity is a critical component of species resilience, acting as a buffer against environmental changes. By analyzing genetic variations among populations, the researchers were able to ascertain how disturbances may have affected the genetic landscape of the guabiroba tree. This knowledge is vital for developing conservation strategies that promote genetic health and adaptive capacity in tree populations.

Furthermore, the research investigates the relationships between guabiroba trees and the broader forest community. These trees not only depend on their environment but also contribute to the overall health of the ecosystem. Their fruits serve as a food source for various animal species, including birds and mammals, thereby facilitating seed dispersal. This reciprocal relationship between guabiroba trees and forest fauna highlights the interconnectedness of biodiversity within mixed ombrophilous forests.

In addition to ecological factors, the study delves into the socio-economic implications of guabiroba trees. As a fruit-bearing tree, guabiroba has potential economic value, particularly in local communities where it may serve as a source of sustenance and income. This dual role of guabiroba trees—as ecological pillars and economic resources—reinforces the need to consider both conservation and community benefits in forest management strategies.

The implications of this research extend beyond the local context, resonating with global forest conservation efforts. As forests around the world face increasing pressure from anthropogenic activities, understanding the population dynamics of key species like guabiroba can inform broad-scale conservation initiatives. By focusing on species resilience and forest health, conservationists can foster ecological stability, crucial to combating climate change and preserving biodiversity.

Importantly, the research points to future avenues of investigation. While the current study provides valuable insights into the population dynamics of guabiroba trees across different disturbance histories, it also raises questions that warrant further exploration. Future studies could address the impacts of climate variability on these dynamics or examine interactions between guabiroba trees and other plant species, thus enriching our understanding of forest ecosystems.

The findings from Almeida and colleagues call for a renewed commitment to studying and preserving the intricate dynamics of forest ecosystems. As scientists continue to unravel the complexities of tree population dynamics, they not only enhance our understanding of specific species like our guabiroba but also contribute to the global discourse on biodiversity conservation.

As we move forward, it is essential that we recognize and act upon the lessons learned from this research. The health of our forests, including the vital guabiroba tree populations, is intricately linked to our actions today. Sustainable management practices, proactive conservation efforts, and increased awareness of the interconnected nature of ecosystems can empower communities and policymakers to safeguard the precious resources that forests provide.

In conclusion, the study on guabiroba trees stands as a testament to the power of scientific research in guiding conservation strategies. As we endeavor to protect our natural ecosystems, embracing the resilience and complexity of species like the guabiroba tree will undoubtedly play a pivotal role in shaping our approach to sustainable forest management in the years to come.

Subject of Research: Population dynamics of the guabiroba tree (Campomanesia xanthocarpa) in relation to disturbance histories.

Article Title: Population dynamics of the guabiroba tree (Campomanesia xanthocarpa O. Berg) in a Mixed Ombrophilous Forest across three disturbance histories.

Article References: Almeida, S.M.Z., de Almeida, L.P., Tagliari, M.M. et al. Population dynamics of the guabiroba tree (Campomanesia xanthocarpa O. Berg) in a Mixed Ombrophilous Forest across three disturbance histories. Discov. For. 1, 42 (2025). https://doi.org/10.1007/s44415-025-00044-x

Image Credits: AI Generated

DOI:

Keywords: Population dynamics, guabiroba tree, Campomanesia xanthocarpa, Mixed Ombrophilous Forest, disturbance history, forest management, biodiversity conservation, ecosystem resilience, genetic diversity, sustainable forestry.

The research, led by J.E. Reek, T.W. Crowther, and T. Lauber, reveals that the temperature at forest edges often exceeds the optimal threshold for vegetation productivity. This means that as climate change escalates, areas surrounding forests may no longer support the same diversity and abundance of plant life that they once did. Such a trend poses serious questions about the resilience of forest habitats and the ecosystem services they provide. For instance, many species of plants rely on stable temperature conditions to thrive, and fluctuations can lead to stress, reduced growth, and even mortality.

The warming effect at forest edges can be attributed to a number of factors. Forests serve as natural buffers, regulating microclimates via shade and moisture retention. However, once the edge of a forest is reached, these buffering effects diminish. This observation is particularly pertinent as humans continue to fragment forests through development, agriculture, and other land-use practices. As edges proliferate, we may witness larger swathes of land experiencing these warmer temperatures, potentially leading to a cascade of ecological consequences not just for plants, but for the various animal species that depend on them.

Moreover, the data collected in the study points toward a global pattern, suggesting that this isn’t just an isolated incident but a widespread occurrence. As temperatures rise globally, forest edges are likely to become increasingly inhospitable to plant species that do not thrive in warmer conditions. Such a shift raises concerns about the potential for altered species composition within forest ecosystems. Species that cannot adapt to these new conditions may face local extinctions, which could lead to a reduction in biodiversity and the disappearance of complex ecological interactions.

The researchers utilized advanced temperature logging technology that allowed them to measure temperature variations in different forest types globally. This method of studying forest microclimates involves placing sensors at various distances from the forest edges to accurately capture the thermal profiles. Their findings illustrated a consistent pattern across diverse ecosystems, providing robust evidence that forest edges are indeed experiencing higher temperatures compared to interior regions.

The implications for agricultural practices are profound. Many farmers rely on forests for shade, windbreaks, and pest control, so the warming at edges could affect crop yields significantly. If the structures supporting these forest ecosystems begin to falter due to higher temperatures, farmers may need to adopt new strategies to mitigate adverse effects on their crops. This may include investing in more temperature-resilient crops or seeking alternative ecological practices that embrace native biodiversity.

Furthermore, the impact on animal life cannot be understated. Many species depend on specific plant communities for their survival. A shift in plant composition could ripple through food webs, affecting everything from pollinators to grazers. Thus, maintaining the integrity of forest ecosystems must be prioritized to ensure these crucial relationships are preserved.

As we look to the future, the study highlights an urgent need for adaptive forest management strategies that consider not just the current state of ecosystems, but also how they will respond to climate variations. The research advocates for preserving the interior landscapes of forests while minimizing edge exposure due to human activities. This could involve reforestation efforts that focus on creating buffer zones, which may help mitigate temperature rises and protect the forest interior microclimates.

In summary, J.E. Reek and colleagues have provided a clarion call for immediate action in conserving our global forests. As we embark on addressing the undeniable realities of climate change, understanding temperature dynamics within these ecosystems becomes paramount. It is crucial that communities, policy-makers, and ecologists work collaboratively to safeguard these landscapes that hold not just ecological diversity but our very agricultural futures as well.

Their findings serve as a reminder of the delicate balance we share with our natural environments. The research underscores the critical need for integrative approaches that harmonize human needs with ecological integrity as we advance in a rapidly changing climate. As we strive to combat the multifaceted challenges presented by climate change, preserving these vital ecosystems stands as a cornerstone of sustainability efforts.

Ultimately, the evidence gathered by this study emphasizes the urgency with which we must act. Forests are crucial for carbon storage, biodiversity, and protection against soil erosion. Maintaining their health is not only beneficial for the environment but also essential for human survival. Every effort must be made to ensure that these ecosystems can continue to thrive in the face of adversity, serving as a buffer against climate change’s most severe impacts.

In light of these findings, ongoing research will be vital to explore further the mechanistic links between vegetation productivity and temperature changes at forest edges. In a world where environmental pressures are mounting, scientific insight such as this paves the way for informed decision-making and progressive strategies that can secure our planet’s ecological future. As we move forward, let us remain vigilant, committed to understanding and protecting the habitats that sustain us.

Subject of Research: Impact of Temperature Differences at Forest Edges vs. Forest Interiors

Article Title: Forest edges are globally warmer than interiors and exceed optimal temperatures for vegetation productivity

Article References: Reek, J.E., Crowther, T.W., Lauber, T. et al. Forest edges are globally warmer than interiors and exceed optimal temperatures for vegetation productivity. Commun Earth Environ 6, 635 (2025). https://doi.org/10.1038/s43247-025-02626-1

Image Credits: AI Generated

DOI: 10.1038/s43247-025-02626-1

Keywords: Forest ecology, climate change, temperature dynamics, vegetation productivity, biodiversity conservation, agricultural impacts.

At the heart of Tai’s research is the confluence of two disciplines that traditionally have not interacted closely enough—ecology and hydrology. Bridging these fields, this project seeks to reconcile the contradictory predictions that emerge from them. Ecologists have often reported that trees located in wetter regions may experience heightened vulnerability during drought periods, while hydrologists assert that higher moisture levels should enhance survival rates. The integration of these dual perspectives stands to provide a richer understanding of forest mortality patterns, suggesting that responses to drought may not follow straightforward, linear relationships but rather exhibit complex, variable behavior across diverse landscapes.

Tai’s inquiry is particularly timely, given that climate change has exacerbated the frequency and severity of drought conditions worldwide, thereby threatening the health and sustainability of forest ecosystems. Despite the urgency of the matter, there remains a dearth of comprehensive research that delineates the connection between forest health and hillslope hydrology—essentially how the movement of precipitation across varied topographies creates different environmental conditions, which in turn impacts forest vitality. The novel angle of this research seeks to illuminate these under-explored dynamics, answering questions about whether groundwater acts as a buffer during drought events or if it can, conversely, contribute to ecosystem distress.

Elucidating the mechanisms that govern water distribution across landscapes is vital for understanding forest dynamics. Tai emphasized that rainfall does not remain where it initially falls; rather, it redistributes unevenly via geological features, resulting in marked differences between wet valleys and dry ridges, sometimes even within a single region. This variability presents a critical investigation point: understanding not just the water distribution itself but also its impacts on forest resilience. Research models presently in use often depend on overly simplified representations of hydrological processes, obscuring the intricate relationships that Tai’s project seeks to explore and clarify.

To investigate these complex interactions further, Tai’s lab will employ a multifaceted methodology. The research strategy comprises a combination of cutting-edge remote sensing technologies to monitor forest health, the evaluation of long-term data from ground-based forest surveys, and advanced computer modeling. This trifold approach aims to construct an intricate picture of how groundwater patterns interact with climatic extremes, significantly enhancing our comprehension of forest resilience across the continental United States.

The insights garnered from Tai’s findings will not only propel scientific knowledge but will also yield practical benefits, equipping policymakers and environmentalists with critical information regarding which forest regions are susceptible to climate-induced vulnerabilities. In light of limited conservation resources, the ability to pinpoint these at-risk areas is essential for prioritizing protective efforts. The need for such predictive models has never been greater, considering the accelerating pace of climatic change and its implications for biodiversity preservation.

Moreover, the project emphasizes the importance of viewing ecological phenomena on a broader geographical scale. Tai asserts that expanding the scope of investigation to encompass extensive areas can unveil relationships and patterns that localized field studies, often constrained by spatial limitations, might overlook. This shift in perspective could fundamentally alter our understanding of how groundwater influences forest health, drawing attention to regional variances and the underlying reasons for forest responses across differing environments.

Tai’s ongoing contributions to the field of ecological research are notable, having previously undertaken significant studies on forest resilience under climate stress. For instance, her prior work has delved into the repercussions of wildfires in regions like the Medicine Bow National Forest and has unveiled unexpected patterns in rainfall and drought responses among Western U.S. forests. Additionally, she has developed sophisticated models that quantify how subsurface groundwater affects forest mortality, further solidifying her position as an innovator in the scientific community.

The implications of the CAREER Award extend beyond research; they also encompass vital educational outreach initiatives. Through this funding, Tai plans to create programs aiming to enhance understanding of terrestrial ecology across varying educational levels, from K-12 to Ph.D. candidates at NJIT. Noteworthy initiatives include a summer research camp designed to unite local high school and community college students with NJIT undergraduates for immersive training in spatial ecology. This endeavor may not only foster future collaborations but also inspire a new generation of scientists passionate about the intersections of climate science, hydrology, and ecology.

In conclusion, the NSF CAREER Award will catalyze extensive research that merges the worlds of ecology and hydrology, providing long-needed insights into the mechanisms that dictate forest health amidst climate adversity. Xiaonan Tai’s project stands to address critical questions regarding forest mortality and resiliency, elucidating the hydrological complexities that underlie ecological systems. Furthermore, the educational initiatives associated with this project represent a commitment not only to advancing scientific research but also to nurturing educational pathways that will cultivate future leaders in environmental sciences.

The collaboration of diverse research methodologies, paired with a focus on educational outreach, positions Tai’s work as a cornerstone for both academic inquiry and community engagement, paving the way for significant advancements in our understanding of forest ecosystems under climate stress.

Subject of Research: Investigating Groundwater’s Role in Forest Ecosystems under Climate Stress
Article Title: NJIT Scholar Awarded NSF CAREER Grant to Explore Impacts of Groundwater on Forest Resilience
News Publication Date: [Insert Date Here]
Web References: [Insert relevant links]
References: [Insert sources if applicable]
Image Credits: Credit: NJIT

Keywords

Forest ecosystems, Groundwater, Drought, Climatology, Hydrology, Ecological research, Education outreach, Terrestrial ecology, NJIT, NSF CAREER Award.

The focus of the investigation was on a pioneering experiment known as the Sardinilla project, situated in Panama. Established in 2001 on previously deforested pastures, this project consists of a series of experimental plots featuring different combinations of native tree species. The specific configurations include plots with one, two, three, or five species. Notably, the trees in the Sardinilla experiment have benefited from the rapid growth rates typical of tropical environments, allowing the researchers to gather extensive data on carbon stocks and fluxes over time.

A significant revelation from the study was that forests composed of five different tree species demonstrated substantially higher aboveground carbon stocks compared to monoculture forests. Detailed analyses revealed that species-rich forests captured a remarkable 57% more carbon in their aboveground biomass, effectively showcasing the advantages of biodiversity in enhancing carbon sequestration mechanisms. This pronounced difference highlights the importance of species diversity not only in fostering ecological health but also in reinforcing carbon storage capabilities.

Interestingly, the study further noted that the positive correlation between tree diversity and carbon stocks became more pronounced over time, even when the forests were subjected to extreme climatic events such as droughts and hurricanes. The researchers observed a remarkable resilience in the diverse forest compositions, suggesting that mixed-species forests offer enhanced ecological stability. Dr. Florian Schnabel, the leading author of the study and a forest scientist at the University of Freiburg, underscored this finding by indicating that the stability of diverse forests reduces the likelihood of carbon being released back into the atmosphere following disturbances.

In light of the escalating impacts of climate change, the study’s findings resonate profoundly with forest restoration efforts. While the researchers advocate for the promotion of tree mixtures over monocultures, they also stress the need for a realistic understanding of the limitations regarding new forests’ capacity to mitigate climate change effectively. For instance, the average annual net CO₂ uptake from the newly planted forests was estimated at just 5.7 tonnes CO₂ equivalents per hectare per year, indicating that scaling up such interventions to compensate for significant emissions could prove challenging.

Accountability in scientific research necessitates comprehensively understanding the potential benefits and limitations of forest restoration. The findings from the Sardinilla experiment indicate that while incorporating diverse tree species can enhance carbon capture, significant land areas are needed to achieve substantial offsets for carbon emissions. The researchers pointed out that it would require one year’s growth from approximately 11 hectares of this mixed forest type to offset the carbon footprint of a single one-way flight from Frankfurt to Panama City, illustrating the scale of forest restoration efforts required to make significant impacts on carbon dynamics.

The implications of this study extend beyond basic ecological science, as they can inform policymaking and environmental management practices aimed at combating climate change. Emphasizing the integration of biodiversity into forest planning can yield both climate benefits and bolster biodiversity conservation efforts. The collaborative nature of the Sardinilla project, as part of the broader TreeDivNet initiative, showcases a commitment to understanding how tree diversity affects ecosystems, underscoring its relevance in the context of sustainable land management.

As we push forward into an era defined by climate change and environmental degradation, the lessons drawn from the Sardinilla study provide not only a scientific foundation for understanding the role of tree diversity but also an actionable guide for practitioners in the field. Implementing thoughtful planting schemes that prioritize ecological complexity will be vital as societies navigate the challenges posed by our changing climate.

In summary, the research confirms what has been increasingly understood in ecological science: maintaining and enhancing biodiversity is crucial for the health of our planet. These forests are not simply stands of trees; they are intricate communities that play a significant role in sequestering carbon and supporting a plethora of life forms. The findings encourage a paradigm shift in how we approach reforestation and afforestation initiatives — prioritizing species diversity may very well be a key strategy in our global efforts to mitigate climate change.

While individual actions and lifestyle changes are crucial in addressing climate change, larger structural changes rooted in ecological principles offer a potent pathway to impact. The world stands at a crossroads, and the management of our forests could very well determine the trajectory of our climatic future. As stewards of the earth, we must embrace this knowledge and act upon it, weaving ecological integrity into the fabric of our environmental and climate policy frameworks.

The current findings invite further exploration and commitment to understanding the interactions within forest ecosystems. They underscore the importance of multidisciplinary research, cooperative international efforts, and community engagement in fostering a greater appreciation for biodiversity’s role in climate resilience.

As continued research unfolds, the interplay between tree diversity and ecosystem functionality promises to uncover even more insights, potentially guiding future forest management and restoration strategies toward more sustainable, evidence-based practices.

Subject of Research: The impact of tree species diversity on carbon sequestration in tropical forests
Article Title: Forest Diversity Enhances Carbon Storage: Insights from the Sardinilla Experiment
News Publication Date: October 2023
Web References: http://dx.doi.org/10.1111/gcb.70089
References: Schnabel, F., Guillemot, J., Barry, K.E., Brunn, M., Cesarz, S., Eisenhauer, N., Gebauer, T., Guerrero-Ramirez, N.R., Handa, I.T., Madsen, C., Mancilla, L., Monteza, J., Moore, T., Oelmann, Y., Scherer-Lorenzen, M., Schwendenmann, L., Wagner, A., Wirth, C., Potvin, C. (2025). Tree diversity increases carbon stocks and fluxes above- but not belowground in a tropical forest experiment. In: Global Change Biology. DOI: 10.1111/gcb.70089
Image Credits: University of Freiburg

Keywords: tree diversity, carbon sequestration, tropical forests, ecological stability, climate change, forest restoration.