Unveiled at the prestigious One Health Summit, convened by French President Emmanuel Macron in Lyon, the One Health Data Convergence Declaration of Intent articulates a comprehensive framework designed to harmonize diverse research data across multiple ecological and biological domains. The objective is to render disparate datasets interoperable and contextually coherent, thereby enabling more actionable insights that can inform policy, research, and public health interventions. At the heart of this declaration lies the vision of One Sustainable Health for All, reflecting a convergence of sustainability and health paradigms through data-driven innovation.

The origins of this collaborative declaration trace back to the French Agency for Food, Environmental and Occupational Health & Safety (ANSES), acting through its Green Data for Health Hub. Backed by extensive international consultation, the declaration benefits from the active participation of the One Sustainable Health for All Foundation, which has partnered strategically with the Frontiers Research Foundation since August 2025. This partnership is a testament to a shared mission to harness global science networks towards evidence-based health actions that transcend geographical and disciplinary boundaries.

An essential dimension of the Declaration of Intent is its adherence to established open science data management principles, notably the FAIR (Findable, Accessible, Interoperable, and Reusable) and CARE (Collective Benefit, Authority to Control, Responsibility, and Ethics) frameworks. This synthesis seeks to strike a fine balance, ensuring data accessibility while upholding robust ethical, legal, and privacy safeguards. Signatories collectively advocate for an international treaty-level commitment to enhance data interoperability and encourage practical case studies that demonstrate real-world impacts of cross-domain data integration.

Leveraging the Frontiers Research Foundation’s deep expertise in open science and publishing, the initiative highlights the groundbreaking FAIR² Data Management service. This innovative platform empowers researchers to elevate the AI-readiness of their datasets, ensuring compliance with institutional mandates on copyright, data sharing, and access. By offering this service, Frontiers directly responds to the persistent challenge of vast volumes of data remaining siloed, disconnected, and underutilized, thereby unlocking their potential for scalable, impactful scientific discovery.

The Declaration underscores not only the technical imperatives of data interoperability but also the strategic necessity of cross-sector collaboration. Success in One Health hinges on integrating knowledge streams spanning human medicine, veterinary science, plant biology, and environmental sciences. This multidisciplinary alliance requires harmonized standards, shared vocabularies, and interoperable infrastructures, all oriented towards generating insights that are actionable at local, national, and global scales. The Declaration calls upon stakeholders to prioritize these collaborative frameworks to overcome the fragmentation that impedes holistic health solutions.

Dr. Franck Vazquez, Director of Open Science at Frontiers and coordinator of the collaboration with the One Sustainable Health for All Foundation, emphasized the importance of the Declaration within the broader context of planetary health. He highlighted that the One Health approach is fundamentally about interconnectedness—a reflection of the complex interdependencies among human, animal, and environmental health. Dr. Vazquez anticipates that mobilizing collective expertise and aligning efforts under shared data standards will significantly accelerate progress toward ubiquitous health resilience.

Echoing this sentiment, Benoit Miribel, President of the One Sustainable Health for All Foundation, reinforced the vision of transcending geopolitical and disciplinary boundaries. According to Miribel, the Foundation harnesses a global network of experts dedicated to transforming the One Health concept into pragmatic, scalable solutions. The Declaration serves as an actionable blueprint to enhance health monitoring and preventive strategies, leveraging data convergence to address some of the most pressing ecological and health challenges faced by society today.

Complementing the Declaration, a Civil Society Position Statement was also endorsed by the Frontiers Research Foundation. This statement broadens the scope by emphasizing the urgency of implementation and the critical nature of accountability and inclusivity in health governance. It explicitly connects the dots between the climate emergency, biodiversity loss, disrupted food systems, and the global health crisis, urging stakeholders to adopt more transparent, participatory, and equitable approaches in data governance and health interventions.

The technical foundation of the Declaration reflects a strategic synthesis of contemporary data science methodologies with open science ethics. AI-readiness of data sets is prioritized to harness machine learning and advanced analytics, enabling predictions and interventions previously unattainable. At the same time, the integration of ethical frameworks like CARE ensures that data sovereignty and responsibilities toward indigenous and marginalized communities are respected, reflecting a mature, socially conscious data ecosystem.

As the global scientific community grapples with unprecedented volumes of heterogeneous health data, the Declaration represents a timely intervention to disaggregate silos and foster an environment where data flows seamlessly across domains and stakeholders. This initiative envisages a future where interoperable databases underpin real-time surveillance, research innovations, and evidence-based policymaking that collectively enhance health outcomes and sustainability at global scale.

In closing, the Frontiers Research Foundation and its partners are poised to lead the charge in operationalizing the One Health principles through this landmark Declaration of Intent. By combining robust data management protocols, AI-compatibility, and inclusive governance frameworks, this initiative offers a blueprint for harnessing the full potential of convergent data science in service of planetary and population health. The journey ahead demands continued dedication, collaborative innovation, and a shared vision for a healthier planet for all life forms.

Subject of Research:
One Health Data Integration and Interoperability for Sustainable Global Health

Article Title:
Frontiers Research Foundation Endorses Global Data Convergence Declaration to Unlock One Health Potential

News Publication Date:
Information not provided

Web References:
– https://www.frontiersfoundation.org/
– https://oneplanetsummit.fr/en/events-16/one-health-summit-305
– https://www.anses.fr/en
– https://fondation-usdt.org/en/
– https://www.frontiersin.org/about/fair-data-management
– https://www.frontiersin.org/news/2025/10/29/global-science-networks-unite-to-accelerate-evidence-based-action-on-health

Keywords:
Open Science, One Health, Data Interoperability, FAIR Data Principles, CARE Principles, AI-Ready Data, Sustainable Health, Cross-Disciplinary Collaboration, Environmental Health, Public Health, Data Governance, Global Health Policy

A key aspect of the study is the exploration of ligand complexation, a process where ligands—molecules that can donate electron pairs—bind to chromium ions, altering their solubility and mobility in various environments. This interaction is crucial for understanding how chromium behaves in polluted sites, such as industrial areas contaminated with chromium metals from steel production or mining activities. The researchers employed advanced analytical techniques to elucidate the chemical dynamics at play, thereby providing a clearer picture of chromium’s environmental fate.

The study’s methodology involved meticulous experimentation under controlled laboratory conditions that simulate natural environments. By creating both oxic and anoxic conditions, the researchers were able to observe how chromium ions react with different types of ligands. This approach allowed them to identify which ligands are most effective in mobilizing chromium and the specific conditions that enhance this process. The findings suggest that the presence of organic matter, often found in soils and sediments, plays a significant role in facilitating chromium mobility.

One particularly notable outcome of this research is the isotopic fingerprinting of chromium. By analyzing the isotopic composition of chromium in different environmental contexts, the researchers can trace its sources and movements within ecosystems. This technique not only aids in identifying pollution hotspots but also enhances our understanding of historical changes in chromium distributions due to industrial activities or natural processes. The isotopic analysis offers a powerful tool for environmental scientists seeking to remediate contaminated areas and monitor the efficacy of their strategies over time.

Importantly, the implications of these findings extend beyond theoretical knowledge. The mobilization of chromium through ligand complexation has direct implications for water quality and public health. Chromium exists in various oxidation states, with Cr(VI) being highly toxic and carcinogenic, while Cr(III) is relatively less harmful. Understanding how ligands can facilitate the transformation of chromium from one oxidation state to another is crucial for developing effective remediation strategies in polluted environments.

Moreover, as these researchers highlight, the dynamics of chromium behavior in anoxic environments are not entirely understood. Several biogeochemical processes occur in these low-oxygen settings that may contribute to the reduction of toxic Cr(VI) to less harmful forms, providing potential avenues for bioremediation approaches. The role of microorganisms in these processes further underscores the complex interplay between biological activity and geochemical cycles in determining the fate of heavy metals like chromium.

As environmental regulations become increasingly stringent, the findings of this study provide vital insights that can inform policy decisions regarding heavy metal pollution. Policymakers can leverage these insights to develop more targeted and effective strategies for addressing chromium contamination, ensuring that ecosystems are protected and human health is safeguarded. By bridging the gap between scientific research and practical application, the study serves as a catalyst for broader discussions on environmental management practices.

The researchers also emphasized the importance of interdisciplinary collaboration in addressing persisting environmental challenges. Combining expertise in chemistry, biology, and environmental science has been instrumental in unlocking the complexities of chromium mobilization. Such collaborative efforts are essential as we face the looming threats posed by climate change and urbanization, both of which can exacerbate heavy metal contamination.

Looking ahead, the study sets the stage for future research endeavors aimed at further unraveling the mechanisms underlying heavy metal behavior in various environmental contexts. By continuing to investigate the interactions between ligands and chromium in both terrestrial and aquatic systems, scientists can build upon these findings to create comprehensive models that predict the impacts of heavy metals in changing environments. This ongoing exploration is fundamental to safeguarding ecosystems and promoting sustainable land use practices.

The researchers believe that educating the public about the risks associated with chromium pollution is as crucial as the scientific work itself. By disseminating their findings to a wider audience, they hope to foster greater awareness about environmental pollution and the importance of sustainable practices in mitigating these risks. The publication of this research is a step toward that goal, opening the door for public discourse on environmental stewardship.

In conclusion, the work by Wang et al. represents a significant advancement in our understanding of chromium mobilization through ligand complexation. By uncovering the intricate relationships between chemical processes and environmental conditions, the researchers provide a valuable framework for addressing the challenges of heavy metal pollution. This research not only illuminates the pathways of chromium in the environment but also serves as a call to action for scientists, policymakers, and the public to engage collaboratively in the quest for a cleaner, safer planet.

Through rigorous experimentation and innovative analytical methods, the study offers hope for improved remediation strategies, ultimately paving the way for healthier ecosystems and communities affected by heavy metal contaminants. The urgency of addressing chromium pollution cannot be overstated, especially as the world grapples with the compounding effects of industrialization and environmental degradation.

In an era of science where the stakes have never been higher, the transformative insights provided by this research hold the potential to change the conversation around heavy metal pollution and underscore the critical importance of environmental chemistry in safeguarding the future of our planet.

Subject of Research: Chromium mobilisation by ligand complexation in oxic and anoxic environments

Article Title: Chromium mobilisation by ligand complexation in oxic and anoxic environments and the isotopic fingerprint

Article References:

Wang, W., Chrastný, V., Hettler, J. et al. Chromium mobilisation by ligand complexation in oxic and anoxic environments and the isotopic fingerprint.
Commun Earth Environ 7, 90 (2026). https://doi.org/10.1038/s43247-025-03071-w

Image Credits: AI Generated

DOI: https://doi.org/10.1038/s43247-025-03071-w

Keywords: Chromium, ligand complexation, oxic, anoxic, environmental chemistry, isotopic fingerprint, heavy metal contamination, remediation strategies.

Urban street dust is often overlooked in discussions surrounding pollution, primarily because it is seen as a mere nuisance rather than a health hazard. However, this study highlights how everyday activities contribute to the accumulation of micro rubber, a byproduct of tire wear, and vanadium, a metal that can originate from multiple anthropogenic sources, including industrial emissions and the burning of fossil fuels. As vehicles traverse city streets, tiny rubber particles break off and mix with dust, creating a complex mixture that can pose significant risks to urban inhabitants.

The research team employed sophisticated spatial analysis techniques to identify hotspots of high micro rubber and vanadium concentrations throughout various neighborhoods in Northwest Iran. They meticulously mapped these areas, revealing that regions with higher traffic volumes tend to have significantly more pollution. This correlation between traffic and increased pollutant levels is not surprising, given that vehicular emissions are notorious contributors to urban air quality degradation. The study’s authors advocate for a comprehensive approach to urban planning that considers traffic patterns to mitigate pollution exposure among residents.

Moreover, the health implications of micro rubber and vanadium exposure cannot be understated. Previous studies have linked inhalation and dermal contact with particulate matter to a myriad of health issues, including respiratory diseases and cardiovascular conditions. Particularly vulnerable populations, such as children and the elderly, may experience heightened risks due to their developing or declining immune systems. This study has established a direct line of inquiry into how such exposure can lead to long-term health complications, creating an urgent need for public health initiatives aimed at these vulnerable groups.

As cities continue to grow and traffic congestion becomes an everyday norm, the question of how to manage urban dust pollution takes on increased importance. Public policies should not only focus on air quality regulations but also incorporate dust control measures. Simple interventions, such as regular street cleaning and the implementation of vegetation along major traffic routes, could potentially reduce the accumulation of harmful particles in the urban environment.

In addition to the health risks associated with these contaminants, the environmental dimension of micro rubber and vanadium prevalence presents another factor for consideration. Ecosystems surrounding urban areas may also suffer from the run-off of contaminated dust into nearby soil and water bodies. The introduction of toxic materials into natural habitats can affect biodiversity, disrupt food chains, and result in the loss of critical ecosystems services. Efforts to address urban dust pollution must, therefore, consider environmental sustainability as an integral part of public health.

Furthermore, the potential effects of climate change on urban dust pollution should not be ignored. As temperatures rise and weather patterns shift, the mobilization of dust particles may become more frequent. This necessitates a proactive approach from city planners and environmental scientists to predict and mitigate future challenges posed by urban pollution. Integrating climate resilience strategies into urban planning may help shield residents from the compounded impacts of dust pollution and other environmental threats.

In terms of methodology, the researchers utilized advanced analytical techniques, including high-resolution mass spectrometry, to ascertain the composition of urban dust samples collected from various locations. This rigorous scientific approach ensured that the data collected was reliable and informative, shedding light on the multifaceted nature of urban pollution. It also highlighted the importance of employing cutting-edge technology in environmental research to unravel complex issues that affect urban populations.

The implications of thisresearch extend beyond the immediate health risks posed by micro rubber and vanadium; they open a dialogue regarding urbanization, public health, and environmental responsibility. The study prompts citizens and policymakers alike to rethink their relationship with urban spaces and encourages communities to advocate for cleaner environments. Rising awareness can lead to collective action, prompting legislative change and advancing public health agendas that prioritize pollution reduction in urban settings.

Public education and outreach efforts play a crucial role in this transition towards cleaner urban environments. Citizens should be informed about the sources and effects of urban dust pollution to cultivate a sense of responsibility. Grassroots campaigns, community workshops, and engaging social media initiatives can serve as platforms to raise awareness, educate residents, and mobilize action in the fight against urban pollution.

In conclusion, the ongoing study conducted in Northwest Iran is a clarion call for urgent action. It not only elucidates the dangerous intersections of urban dust, micro rubber, and vanadium but also emphasizes the broader implications for public health and environmental stability in rapidly urbanizing areas. A paradigm shift in how cities are designed, governed, and experienced by their inhabitants is essential for navigating the complexities of urban pollution. We must act now, informed by research, collective advocacy, and unwavering commitment to our communities and the environment.

The integration of scientific insights into public policy will be crucial in shaping a sustainable urban future. As researchers continue to unravel the complexities of urban pollution, the onus is on us to ensure that their findings translate into actionable change that promotes public health and ecological integrity. Awareness, collaboration, and informed decision-making will be vital in addressing the urgent challenges posed by urban micro rubber and vanadium, laying the groundwork for healthier cities and healthier populations.

Subject of Research: Urban pollution involving micro rubber and vanadium in street dust.

Article Title: Spatial analysis and health implications of micro rubber and vanadium in urban street dust in Northwest of Iran.

Article References:

Ayremloo, P., Hosseinpour, S., Fouladi-Fard, R. et al. Spatial analysis and health implications of micro rubber and vanadium in urban street dust in Northwest of Iran.
Sci Rep 15, 37553 (2025). https://doi.org/10.1038/s41598-025-24249-4

Image Credits: AI Generated

DOI: 10.1038/s41598-025-24249-4

Keywords: Urban pollution, micro rubber, vanadium, public health, environmental sustainability.

The study meticulously gathers and analyzes meteorological data—integrating temperature, humidity, wind speed, and atmospheric pressure—aimed at uncovering the seasonal variations in PM2.5 concentration. The scientists deployed advanced analytical methods to uncover correlations between these meteorological factors and concentrations of fine particulate matter. With specific reference to the four capital cities, the research contextualizes PM2.5 trends within the unique geographical and climatic characteristics of each region. The results elucidate a pressing narrative: heightened PM2.5 levels correspond remarkably with specific meteorological phenomena, further complicating the interplay of urban air quality and climate.

For cities like Islamabad, Lahore, Karachi, and Peshawar, which experience distinct atmospheric conditions, the findings revealed how local meteorology significantly dictates pollution levels. For instance, stagnant air conditions prevalent in the winter months often lead to an accumulation of particulate matter, resulting in dangerously high PM2.5 concentrations. The study not only highlights immediate health risks but also raises questions about long-term public health strategies in these urban environments.

Another critical aspect of the research focuses on how meteorological parameters—such as temperature inversions and humidity—ensure that PM2.5 remains suspended in the air for extended periods. This phenomenon is especially troubling as prolonged exposure to high PM2.5 levels can exacerbate respiratory conditions and cardiovascular diseases, particularly in vulnerable populations. Such data provide crucial insights for policymakers and urban planners who are tasked with designing interventions to mitigate pollution levels.

Furthermore, the analysis extended to investigating daily versus seasonal variations in PM2.5 concentrations, establishing a compelling narrative of how weather patterns dictate pollution spikes. This analysis demonstrates the need for real-time monitoring and forecasting of air quality, which could serve as an essential component in developing timely public health advisories to protect citizens from adverse health outcomes during peak pollution events.

Understanding the sources of PM2.5 pollution in the context of these meteorological interactions is imperative for comprehensive environmental management. The study meticulously categorized primary sources of particulate matter, including vehicular emissions, industrial discharge, and biomass burning. The researchers argue that recognizing these pathways allows for a more nuanced approach to regulatory frameworks and pollution mitigation strategies tailored to the distinct profiles of each city.

The implications of the research extend beyond immediate pollution concerns. With the growing discourse on climate change and its multifaceted impacts on urban air quality, the findings present an urgent call for integrated climate and healthcare policies. The linking of air pollution epidemiology with meteorological data not only enhances the scientific understanding but also provides a roadmap for future research focused on predictive modeling and risk assessment.

Importantly, the study underlines the ethical dimensions of environmental health research. Public health officials and advocates must be informed not only by scientific data but also by the socio-economic realities that affect vulnerable populations disproportionately affected by air quality issues. The equity implications of higher PM2.5 exposure in low-income areas enrich the research, providing an additional layer of complexity and urgency to these findings.

This research will undeniably serve as a benchmark for future studies examining air quality in developing countries, paving the way for innovative solutions and collaborative approaches to tackle pollution. By illuminating the dynamic interplay between meteorological parameters and PM2.5 levels, Zeb, Nasir, and Alam contribute significantly to the body of knowledge essential for implementing effective public health and environmental policies.

In conclusion, as urban centers across Pakistan grapple with increasing pollution levels, this crucial research raises awareness about the underlying factors that exacerbate air quality issues. By interlinking meteorological data with pollution metrics, the researchers provide a crucial lens through which to address and mitigate the impacts of PM2.5 pollution. As cities prepare to respond to the dual challenges of urbanization and climate change, this type of research becomes not just informative but transformative, equipping stakeholders with the knowledge required for active and informed action.

The critical insights offered by this study cannot be overstated; they underscore a pressing need for integration between environmental regulations and healthcare strategies to curb the detrimental impacts of PM2.5 pollutants in urban areas. The narratives established within the research provide a robust foundation for advocating for cleaner air policies in Pakistan and other regions facing similar challenges.

This timely investigation represents an urgent call to action, advocating for increased awareness and immediate responses to air pollution. As we confront the reality of climate change and its adversities, the knowledge generated from such studies lays the groundwork for sustainable, healthy environments that benefit not only current inhabitants but also future generations.

Subject of Research: PM2.5 pollution and its correlation with meteorological parameters over the four capital cities of Pakistan.

Article Title: PM2.5 pollution and its correlation with meteorological parameters over the four capital cities of Pakistan.

Article References:

Zeb, B., Nasir, J., Alam, K. et al. PM_2.5 pollution and its correlation with meteorological parameters over the four capital cities of Pakistan.
Environ Monit Assess 197, 1237 (2025). https://doi.org/10.1007/s10661-025-14691-2

Image Credits: AI Generated

DOI: 10.1007/s10661-025-14691-2

Keywords: PM2.5, air quality, meteorological parameters, public health, urban pollution, climate change, environmental policy.

The Planetary Health Diet, conceptualized by the EAT-Lancet Commission, advocates a dietary pattern rich in wholegrains, fruits, and vegetables while limiting red and processed meats along with sugary drinks. This dietary strategy emerges as a pivotal response to modern food systems’ challenges which contribute significantly to global health issues and climate change. Despite the growing enthusiasm around PHD, quantitative data exploring its effects on metabolic diseases, particularly type 2 diabetes, alongside environmental footprints, have remained scarce—until now.

Leveraging data from over 23,000 subjects enrolled in the EPIC-Norfolk prospective cohort study, researchers embarked on an observational examination spanning two decades. Dietary information collected at three intervals allowed precise assessment of adherence to the PHD. The findings revealed a compelling dose-response relationship: individuals attaining the highest quintile of adherence exhibited a remarkable 32% reduction in the incidence of type 2 diabetes compared to those in the lowest adherence group. This degree of risk attenuation positions the dietary pattern among the most promising nutritional interventions against the burgeoning diabetes epidemic.

Beyond individual health outcomes, the team quantified diet-related greenhouse gas emissions, employing life cycle assessment methodologies to translate dietary intake into environmental impact metrics. Participants aligned with the PHD at the highest adherence levels correspondingly demonstrated an 18% reduction in dietary greenhouse emissions compared to their less adherent counterparts. This linkage elucidates the synergy between health-promoting diets and sustainability goals, highlighting that personal health choices can concurrently advance planetary well-being.

The mechanistic underpinnings explaining diabetes risk reduction through PHD adherence likely reside in the diet’s high content of fiber, antioxidants, and polyphenols derived from plant foods, coupled with the minimization of pro-inflammatory constituents found in processed and red meats. These nutritional components improve insulin sensitivity, modulate gut microbiota, and reduce systemic inflammation—all critical factors in the pathogenesis of type 2 diabetes.

Environmental science perspectives further enhance the narrative: animal agriculture, especially ruminant meat production, remains a significant source of methane and nitrous oxide emissions, potent greenhouse gases exacerbating climate change. By advocating reduced consumption of such products, the PHD effectively curbs emissions while promoting biodiversity and responsible land use.

Importantly, while the observational design precludes definitive causal inferences, the large sample size, longitudinal data, and rigorous adjustment for confounders substantially strengthen the evidence base. The nuanced analysis acknowledges potential limitations such as measurement errors in dietary recalls and residual confounding, but these are mitigated by repeated measures and sophisticated statistical modeling.

Dr. Solomon Sowah, lead investigator, emphasized the research impetus: “Our study addresses the gap in population-based evidence linking the Planetary Health Diet to type 2 diabetes risk and environmental impact. We demonstrated that increased intake of wholegrains, fruits, and vegetables and decreased consumption of red/processed meats and sugary beverages align strongly with favorable health and environmental outcomes.”

Senior author Prof. Nita Forouhi underscores the public health implications: “These findings affirm the PHD’s potential to deliver a dual benefit—preventing chronic disease while alleviating environmental harm. Implementing such dietary changes requires coordinated action across policy, industry, and individual behavior. The ‘win-win’ scenario paves the way for integrated health and environmental strategies.”

The significance of this work extends into global health policy realms, particularly in framing sustainable dietary guidelines that prioritize ecological footprints alongside nutrient adequacy. Integrating sustainability criteria into public dietary recommendations represents an emerging frontier in nutrition science, demanding interdisciplinary collaboration and innovative policy frameworks.

Furthermore, the study’s methodology presents a template for future research that intertwines epidemiology with environmental metrics, underscoring the concept of “planetary health” as a holistic lens through which human health and ecosystems are interdependent. The analytical fusion of dietary assessment tools with environmental impact assessments promotes a paradigm shift in nutritional epidemiology.

In light of escalating diabetes rates worldwide and accelerating climate crises, interventions with multifaceted benefits like the PHD are urgently needed. This research contributes invaluable evidence underscoring that dietary patterns emphasizing plant-based foods not only support metabolic health but also advance global sustainability targets.

Advocating for widespread adoption of the Planetary Health Diet demands overcoming socio-economic, cultural, and systemic barriers—ranging from food affordability and accessibility to entrenched eating habits. Collective efforts involving governments, healthcare systems, educational institutions, and food producers are essential to foster environments conducive to sustainable and healthful dietary choices.

In conclusion, this landmark study solidifies the role of the Planetary Health Diet as a vital strategy at the nexus of human and planetary health, offering a scientifically grounded, actionable roadmap towards reducing type 2 diabetes risk while mitigating environmental degradation. The era of siloed approaches to nutrition and environmental policy is giving way to integrative models where personal and planetary futures are inseparable.

Subject of Research: People

Article Title: The association of the planetary health diet with type 2 diabetes incidence and greenhouse gas emissions: Findings from the EPIC-Norfolk prospective cohort study

News Publication Date: September 16, 2025

Web References: http://dx.doi.org/10.1371/journal.pmed.1004633

References: Sowah SA, Imamura F, Ibsen DB, Monsivais P, Wareham NJ, Forouhi NG (2025) The association of the planetary health diet with type 2 diabetes incidence and greenhouse gas emissions: Findings from the EPIC-Norfolk prospective cohort study. PLoS Med 22(9): e1004633.

Image Credits: Credit: EAT Forum (CC-BY 4.0)

Keywords: Planetary Health Diet, Type 2 Diabetes, Greenhouse Gas Emissions, Sustainability, Nutritional Epidemiology, Plant-Based Diet, Climate Change, Public Health, EPIC-Norfolk Study, Environmental Impact, Metabolic Disease, Food Systems