Set within the historic Comet Louise venue, the event will assemble roughly 150 stakeholders, including leading scientists, policymakers, and practitioners, to engage in forward-looking discourse. The convergence of these diverse actors is designed to translate intricate research outcomes into effective governance frameworks, innovative policies, and societal practices that collectively uphold ecological integrity. This conference embodies a critical juncture to consolidate collective insights and stimulate momentum toward a nature-positive future.

The conference’s architecture strategically encompasses four thematic tracks, each delving deeply into different dimensions essential for transformative change. The first track emphasizes systems, models, and scenarios, seeking to elucidate complex ecological networks and predict pathways for biodiversity resilience. Advanced modeling techniques and scenario analyses have been pivotal in understanding how multiple anthropogenic pressures interplay, enabling researchers to frame potential futures and resilience thresholds.

Parallel to this, the governance, policy, and innovation track critically examines current institutional frameworks and explores novel mechanisms to embed biodiversity priorities at policy and financial decision levels. Research within this stream underscores the necessity of adaptive governance structures capable of responding to dynamic socio-ecological systems and fostering policy coherence across sectors and scales. Innovation in policy design and implementation remains a cornerstone for bridging knowledge and actionable governance.

The societal, values, and practice track highlights the integral role of human dimensions in biodiversity conservation. Here, in-depth explorations of societal values, equity considerations, and behavioral transformations are paramount. Researchers emphasize that achieving transformative change demands not only technical solutions but also shifts in cultural norms, ethical frameworks, and participatory governance. This perspective integrates social science methodologies to capture the nuanced fabric of societal engagement with nature.

A dedicated poster and visualization strand complements these thematic areas by showcasing empirical case studies, novel data visualizations, and intersectional analyses fostering knowledge dissemination and stakeholder engagement. This strand employs cutting-edge communication tools to render complex scientific data accessible and compelling, thereby enhancing interdisciplinary dialogue and policy uptake.

The two-day agenda commences with “Exploring Transformative Pathways,” where each research project presents comprehensive syntheses of their findings. This segment facilitates cross-cluster reflection, identifying convergences and delineating unresolved challenges. The moderated panel that follows serves as a crucible for interrogating thematic overlaps, methodological innovations, and emergent research questions, grounding the collective inquiry in practical relevance.

Day one’s parallel sessions provide meticulous scrutiny of biodiversity impacts through nexus approaches, linking biodiversity with critical sectors such as water, agriculture, and energy. These sessions foreground integrative frameworks that reconcile competing resource demands while promoting ecological sustainability. Innovations in transformative research and innovation methodologies are also prominently featured, highlighting systemic innovation methods and transdisciplinary research strategies.

Closing day one, the cross-project synthesis plenary consolidates insights and formulates pressing questions, setting the stage for subsequent deliberations. This synthesis reflects the cluster’s commitment to iterative knowledge integration, ensuring that the research trajectory remains attuned to emergent policy and societal needs.

On day two, themed “From Knowledge to Action,” conference participants engage intensively in translating scientific knowledge into operationalized decision-making frameworks. This includes sessions on integrating transformative insights into ongoing and upcoming policy processes, with a particular emphasis on the EU Biodiversity Strategy and the European Green Deal. Discussions explore financial system reorientation toward nature-positive investments, addressing the catalytic role of finance in driving systemic ecological change.

The agenda also charts a future-oriented biodiversity research program, advocating for sustained transdisciplinary collaboration. Emphasis is placed on refining research agendas that encapsulate governance innovation, societal inclusion, and financial mechanisms, all essential to scaling transformative outcomes. The closing plenary engages stakeholders in an interactive policy dialogue, synthesizing contributions and charting pathways for cooperative, impact-driven efforts.

Throughout the conference, the strategic focus is on enhancing policy relevance and ensuring that transformative knowledge informs and shapes both European and global biodiversity agendas. Notably, the event aligns with key international frameworks such as IPBES, particularly its forthcoming assessments addressing nexus approaches and transformative change. The engagement of policymakers and financial actors underscores a commitment to making research directly actionable, thus reinforcing the science-policy interface.

The Transformative Change Cluster embodies a paradigm shift in environmental research by integrating disciplinary diversity with practical case studies across landscapes and value chains. By addressing governance, innovation, societal values, and finance, these projects collectively advance understanding of systemic shifts required to achieve equitable and sustainable biodiversity outcomes. The conference thus represents a keystone moment in mobilizing scientific excellence to support nature-positive futures.

In summary, the 4–5 June 2026 conference in Brussels will not only highlight the cumulative advances across nine pivotal Horizon Europe projects but also serve as a launchpad for embedding transformative change into policy frameworks and societal practices. Its multi-faceted program and strategic orientation toward actionable knowledge underscore the vital role of interdisciplinary and transdisciplinary collaboration in confronting the complex challenges of biodiversity loss.

Subject of Research: Transformative societal change for biodiversity conservation within the Horizon Europe framework.

Article Title: (Not explicitly provided in the source content)

News Publication Date: (Not explicitly provided in the source content)

Web References:
https://mediasvc.eurekalert.org/Api/v1/Multimedia/79456f8f-0ead-4ead-a5c0-21f19871f63a/Rendition/low-res/Content/Public

Image Credits: European Science Communication Institute gGmbH

Keywords:
Biodiversity, Ecological diversity, Biodiversity conservation, Transformative change, Horizon Europe, Environmental governance, Policy innovation, Societal values, Transdisciplinary research, Nature-positive finance, Systems ecology, Sustainability, Climate change mitigation

The investigation synthesized GPS tracking data from nine majestic species, encompassing herbivores such as bison, bighorn sheep, moose, mountain goats, mule deer, pronghorn, and elk, alongside apex predators like wolves and cougars. By studying these diverse populations across the Greater Yellowstone region during the peak summer months—from mid-June to late August—the scientists sought to decipher patterns of behavioral plasticity related to thermal stress.

Dr. Becker and her interdisciplinary team utilized extensive datasets collected from 2001 through 2019, contributed by multiple conservation and governmental agencies including the Bureau of Land Management and the National Park Service. The longitudinal nature of the data allowed the team to rigorously analyze animal movements and habitat utilization across varying environmental conditions and thermal gradients.

A key revelation from the study is that large mammals exhibit pronounced alterations in their behavior in response to increasing daytime temperatures, primarily by seeking cooler microhabitats and reducing movement to conserve energy and avoid overheating. This aligns with known thermoregulatory survival strategies but importantly highlights the dynamic and immediate nature of behavioral responses absent any need for genetic adaptation.

What stands out strikingly is the influence of landscape heterogeneity on behavioral adjustments. Contrary to expectations, individuals inhabiting homogenous environments—with little variation in terrain and vegetation—demonstrated more substantial shifts in behavior than those in ecotones or mosaic habitats with diverse features such as shaded forest patches and open meadows. For instance, pronghorns in Wyoming’s Shirley Basin, which typifies a flat, uniform prairie ecosystem, exhibited significant behavioral modulation, traveling greater distances to find relief from heat through shade-seeking.

The research further explored the impact of endogenous characteristics, including sex, body size, and physiological attributes, yet found no consistent correlation between these inherent traits and behavioral plasticity in response to temperature stress. This absence of a direct biological determinant suggests that extrinsic environmental factors predominantly govern how animals cope behaviorally with climate variability.

From an evolutionary biology perspective, the findings provide compelling evidence that large terrestrial mammals, despite their typically longer lifespans and slower reproductive rates, possess immediate behavioral mechanisms to mitigate climate-induced stress. This behavioral flexibility acts as a vital buffer, granting them resilience against rapid environmental shifts that outpace physical adaptations or evolutionary change.

The ecological implications of these discoveries are substantial. They underscore the significance of maintaining habitat complexity and connectivity across vast landscapes. Landscape permeability emerges as critical, facilitating animal access to diverse, thermally distinct microhabitats during extreme heat events. This mosaic-like habitat structure effectively supports behavioral thermoregulation, enhancing species survival probabilities under future climate scenarios.

Justine Becker emphasized the study’s relevance to wildlife management, suggesting that conservation strategies should pivot from species-specific prescriptions toward ecosystem-wide habitat considerations. Protecting and restoring heterogeneous landscapes that offer a variety of thermal refuges could be instrumental in supporting these keystone species amid escalating climate challenges.

Moreover, the collaborative nature of this research highlights the power of data sharing among agencies and scientists, fostering integrative approaches that transcend disciplinary and jurisdictional boundaries. This synthesis of empirical observations opens new frontiers for understanding complex ecological processes in an era of global environmental change.

The team’s work also advocates for ongoing investigations into individual-level behavioral traits and their interaction with environmental variables. Detailed studies examining specific physiological markers, such as coat color or metabolic rates, may further elucidate the intricate biological and ecological synergy underlying behavioral plasticity.

In conclusion, this pioneering multi-species, large-scale study offers a hopeful narrative: large mammals demonstrate remarkable behavioral adaptability to rising temperatures by leveraging their environment’s structural diversity. As the climate crisis intensifies, such insights are invaluable for shaping forward-thinking conservation policies that prioritize ecological resilience and the preservation of biodiversity in the Greater Yellowstone Ecosystem and beyond.

Subject of Research: Animals
Article Title: Expression and mechanisms of behavioral plasticity in large mammals
News Publication Date: 20-Oct-2025
Web References: http://dx.doi.org/10.1002/ecs2.70432
References: Ecosphere journal article by Justine Becker et al.
Image Credits: Alex Becker
Keywords: behavioral plasticity, large mammals, climate change, Greater Yellowstone Ecosystem, habitat heterogeneity, thermoregulation, GPS tracking, wildlife ecology, conservation management

Conventional ecosystem engineering emphasizes how individual species or groups modify their immediate physical environment to enhance survival and reproduction. Classic examples include beavers constructing dams that alter stream flow or prairie plants influencing soil composition locally. These engineering actions, while ecologically significant, typically have limited spatial and temporal footprints. In contrast, Earth system engineering expands this perspective by investigating biological mechanisms that have altered Earth’s chemical, physical, and climatic systems on a global scale through deep time, thereby affecting the planet’s entire biosphere and geosphere.

The scientists highlight that Earth system engineering includes processes that have cumulatively restructured planetary function, such as the advent of photosynthesis, which profoundly increased atmospheric oxygen and enabled the proliferation of animal life. Similarly, the evolution of rooting systems in ancient prairie plants drastically changed soil structure and nutrient cycles, with cascading effects that reshaped terrestrial ecosystems. These transformations involved multiple species working through complex interactions, reinforcing the idea that Earth system engineering is a collective biological phenomenon rather than the act of individual species.

A central question motivating the framework is whether humans represent a unique class of Earth system engineers, distinguished by the unparalleled scale and diversity of their environmental modifications. Human activities — including fossil fuel combustion, urbanization, and large-scale animal husbandry — have disrupted planetary processes to an unprecedented degree and pace. The framework offers tools to compare human-driven changes to past natural events, helping to contextualize humanity’s role within Earth’s evolutionary narrative and assess potential future trajectories amid ongoing climate change and biodiversity loss.

This novel perspective arose from a collaborative 2020 National Science Foundation Research Coordination Network Grant. Lyons, acting as the lead principal investigator, alongside co-principal investigators Simon Darroch and Peter Wagner, synthesized interdisciplinary data from paleontology, ecology, earth system science, and evolutionary biology. The integration of fossil records with modern observations enabled the team to formalize the concept of Earth system engineering, creating a unified terminology and framework to distinguish local ecosystem effects from those with biosphere-wide significance.

One of the technical strengths of this framework lies in its multi-scale, multi-temporal approach to defining engineering behaviors. It recognizes that some biological influences occur over millennia or longer, transforming Earth’s atmosphere, lithosphere, and hydrosphere in ways that support diverse life. Detecting these signals requires sophisticated analyses of geochemical proxies, sedimentary records, and fossil evidence, bridging disciplines to unravel life’s role in shaping planetary habitability.

Lyons emphasizes that formalizing Earth system engineering advances evolutionary theory by layering a systemic understanding of how engineering behaviors impact macroevolutionary patterns. The framework could lead to predictive models about how current anthropogenic impacts might sculpt the biosphere’s future, informing conservation strategies and climate policy. By framing humanity as potentially the latest Earth system engineers, researchers can leverage deep-time analogs to better anticipate the cascading effects of global change.

The paper’s implications extend beyond academia, potentially transforming public discourse about human-environment interactions. Contrasting the relatively localized impacts of classic ecosystem engineering with the planet-wide consequences of Earth system engineering underscores the scale of responsibility humanity holds. This conceptual shift may fuel more informed discussions about sustainability, planetary stewardship, and technological interventions designed to mitigate or amplify bioengineering effects.

The working group’s broad institutional representation—from the Senckenberg Museum of Natural History to universities and science museums worldwide—reflects the multidisciplinary nature of the challenge. Such diversity is vital to capture the complexity of interactions spanning biology, geology, atmospheric sciences, and anthropology. The collaborative nature of the project establishes a foundation for future research networks aimed at exploring biosphere processes and their profound impacts on Earth’s history and future trajectories.

Examining past Earth system engineering phenomena reveals how life has repeatedly undertaken transformative roles in reshaping the planet. Photosynthetic cyanobacteria, for example, ushered in the Great Oxygenation Event roughly 2.4 billion years ago, fundamentally altering Earth’s atmosphere and enabling oxygen-dependent fauna. Similarly, terrestrial vegetation influenced weathering processes and climate regulation. Together, these examples demonstrate that Earth system engineering is not novel but rather an intrinsic feature of life’s evolution on the planet.

Humans, however, introduce complexities that are distinct from previous engineering episodes. Whereas earlier biological impacts unfolded gradually through natural evolutionary timescales, anthropogenic forcing has accelerated environmental transformations dramatically within centuries. The combined effects of land use alteration, greenhouse gas emissions, and biodiversity engineering pose novel challenges for interpreting and managing Earth’s future within this framework.

Ultimately, the Earth system engineering framework represents a paradigm shift in environmental science and evolutionary biology. By providing a language and structure to analyze planetary-scale biological influences, it empowers researchers to better decipher the biosphere’s past and project its future. As this framework gains traction, it promises to unify disparate strands of science while emphasizing the crucial role of living organisms as architects of Earth’s dynamic system.

Subject of Research: Animals

Article Title: ‘Earth system engineers’ and the cumulative impact of organisms in deep time

News Publication Date: 23-Sep-2025

Web References:
https://doi.org/10.1016/j.tree.2025.08.005

Keywords: Earth system engineering, ecosystem engineering, planetary ecology, biosphere, evolutionary biology, climate change, biodiversity, photosynthesis, fossil record, human impact, deep time, environmental transformation

At the heart of this novel research lies the integrated quantification of planetary NPP, a measure of the net carbon fixed by ecosystems through photosynthesis after accounting for plant respiration. This synthesis leverages a variety of satellite platforms, combining outputs of heterogeneous vegetation indices, ocean color, and chlorophyll fluorescence data. These products enable unprecedented cross-ecosystem comparisons, illuminating divergent trajectories in biological productivity that reflect underlying differences in ecosystem sensitivities, particularly to temperature increases in tropical latitudes—a hotspot for climate impacts.

From 2003 to 2021, the global biosphere’s net primary production exhibited a modest but statistically meaningful overall increase of approximately 0.11 petagrams of carbon per year (PgC yr⁻¹), with a confidence interval spanning ±0.13 PgC yr⁻¹ (P = 0.05). This trend belies the contrasting contributions from the land and ocean realms. On land, a robust and statistically significant upward trend was identified, amounting to an enhancement of roughly 0.20 ± 0.07 PgC yr⁻¹ (P < 0.001). Terrestrial ecosystems thus emerge as the primary drivers of global NPP increase, likely benefiting from CO₂ fertilization effects, longer growing seasons in some regions, and varied responses to regional climate anomalies.

Conversely, oceanic primary productivity exhibited a discernible, though not yet statistically significant, downward trend of approximately −0.12 ± 0.12 PgC yr⁻¹ (P = 0.07). Though the decline is less pronounced and accompanied by greater uncertainty than the terrestrial increase, the downward path warrants attention. Ocean ecosystems, particularly phytoplankton communities, are highly sensitive to environmental factors such as sea surface temperatures, nutrient availability, and stratification changes—each influenced by climate variability and warming. The contrast between land and sea NPP trends thus possibly underscores differential ecosystem responses rooted in distinct physiological and biogeochemical constraints.

One of the most intriguing and consequential findings of the study is the contrasting role of terrestrial and marine NPP in interannual variability. While the land biosphere steadily pushes the planetary carbon uptake upwards, its year-to-year fluctuations are comparatively muted. In contrast, ocean productivity exhibits large swings tightly coupled to climatic oscillations, especially driven by the El Niño–Southern Oscillation (ENSO). ENSO phenomena trigger profound shifts in sea surface temperatures and nutrient dynamics, directly modulating phytoplankton blooms and carbon fixation in vast oceanic regions. Hence, the oceans act as the biosphere’s pulse, driving the global carbon uptake rhythm on annual to multi-year scales.

This complex interplay between terrestrial persistence and oceanic volatility has far-reaching implications. It suggests that predicting future biosphere behavior under climate change requires holistic, integrative approaches that reconcile land–ocean processes rather than isolated examination. The study’s satellite-enabled planetary-scale perspective is a clarion call to the scientific community to break down traditional ecosystem compartmentalization and embrace joint monitoring schemes. Such integration will sharpen the accuracy of carbon budget assessments critical for climate mitigation policies and ecosystem management.

The terrestrial enhancement of NPP aligns well with prior findings suggesting a fertilization effect of rising atmospheric CO₂, potentially boosted by warming-induced increased photosynthetic activity and extended phenological seasons in temperate and boreal forests. However, this boost is not uniform geographically or taxonomically; tropical forests and arid regions may experience diminished growth due to heat and water stress. Therefore, continued monitoring and sophisticated regional analyses remain imperative to capture dynamic spatial heterogeneity and emergent thresholds beyond which productivity may crash.

Marine declines, on the other hand, are likely influenced by warming-driven stratification that limits nutrient upwelling into surface waters, suppressing phytoplankton growth in key oceanic zones. Additionally, ocean acidification and shifts in marine food webs may exacerbate primary production losses. These perturbations not only curb carbon sequestration but also threaten marine biodiversity and fisheries vital for human livelihoods. Understanding the mechanistic underpinnings of ocean productivity decline is essential for evaluating potential feedback loops and transboundary climate impacts.

Crucially, these findings underscore that while terrestrial ecosystems currently compensate for oceanic productivity drops, their capacity to do so indefinitely is uncertain. Prolonged terrestrial warming, drought stress, pest outbreaks, and land-use change may weaken land’s carbon sink function, risking a tipping point beyond which global NPP could stall or decline. Similarly, ocean productivity trajectories will be shaped by future climate forcings that might amplify negative trends or instigate recovery under certain scenarios.

The study also emphasizes the value of satellite remote sensing as a transformative tool for biosphere science. Satellite platforms provide synoptic, repeated, and standardized observations critical for detecting subtle trends and anomalies invisible to ground-based networks alone. Advanced algorithms integrating multispectral data capture leaf porosity, chlorophyll fluorescence, and ocean color complexities, translating spectral signatures into robust NPP estimates across terrestrial and marine realms. This technological fusion empowers continuous planetary-scale biosphere surveillance indispensable for climate action.

Moreover, Zhang et al.’s research highlights the need to couple these remote observations with in situ measurements and ecosystem models. This integrative approach will refine understanding of causal mechanisms and feedbacks, enabling predictive modeling under multiple emission and climate scenarios. As climate policies increasingly hinge on reliable carbon flux quantifications and nature-based solutions, robust and harmonized land–ocean NPP datasets become ever more critical.

Looking forward, this study invites renewed scientific and policy focus on developing integrated biosphere monitoring frameworks. Coordinated efforts among satellite agencies, oceanographic institutions, terrestrial ecologists, and climate modelers will be foundational for fully deciphering Earth system responses. Improved spatiotemporal resolution, sensor fusion, and real-time data assimilation can reveal early warning signals of biospheric stress, facilitating adaptive management and mitigation strategies.

In summary, the landmark analysis by Zhang and colleagues provides a holistic and nuanced portrait of the Earth’s living carbon engine amid a changing climate. It reveals that while terrestrial nature currently breathes life into the planet’s CO₂ uptake, the ocean’s biological heart fluctuates with climatic rhythms and edges toward decline. Such divergence signals both resilience and vulnerability, emphasizing an urgent need for globally integrated biosphere science to safeguard the planetary life-support system. This study marks a pivotal advance in our quest to understand the biosphere’s role in modulating climate and securing a sustainable future.

As humanity intensifies efforts to confront global warming, appreciating the intertwined fates of land and ocean mechanisms of carbon fixation becomes paramount. The emerging evidence from satellite observations implores not only scientists but also policy leaders and the public to value and invest in comprehensive biospheric stewardship. Only by embracing the intricate connectivity of terrestrial and marine life can effective climate solutions be designed and implemented, preserving Earth’s vitality for generations to come.

Subject of Research:
Integrated analysis of net primary production trends in terrestrial and marine ecosystems under climate warming, using satellite-derived data.

Article Title:
Contrasting biological production trends over land and ocean.

Article References:
Zhang, Y., Li, W., Sun, G. et al. Contrasting biological production trends over land and ocean.
Nat. Clim. Chang. (2025). https://doi.org/10.1038/s41558-025-02375-1

Image Credits: AI Generated