Enhanced weathering with agriculture for atmospheric carbon dioxide removal

Discussion meeting organised by Professor David Beerling FRS, Professor Rachael James, Dr Noah Planavsky and Dr Christopher Reinhard
This meeting will discuss advances and uncertainties in terrestrial enhanced weathering, a key carbon dioxide removal strategy for climate change mitigation. Recent discoveries and R&D investment are accelerating the prospect of large-scale EW implementation, but uncertainties remain. The goal of this meeting is to provide a much-needed balanced discussion on the scientific and societal challenges ahead.
Programme
The programme, including speaker biographies and abstracts, will be available soon. Please note the programme may be subject to change.
Poster session
There will be a poster session from 17:00 on Monday 17 November 2025. If you would like to present a poster, please submit your proposed title, abstract (up to 200 words), author list, and the name of the proposed presenter and institution no later than 19 October 2025.
Attending the event
This event is intended for researchers in relevant fields.
- Free to attend
- Both virtual and in-person attendance is available. Advance registration is essential. Please register via Eventbrite for a ticket
- Lunch is available on both days of the meeting for an optional £25 per day. There are plenty of places to eat nearby if you would prefer purchase food offsite. Participants are welcome to bring their own lunch to the meeting
Enquiries: Scientific Programmes team.
Image credit: ©️David Beerling
Schedule
Chair

Professor David Beerling, University of Sheffield, UK

Professor David Beerling, University of Sheffield, UK
Professor David Beerling FRS is the Sorby Professor of Natural Sciences and Director of the Leverhulme Centre for Climate Change Mitigation, a newly established Research Centre funded by the Leverhulme Trust.
09:00-09:05 |
Welcome by the Royal Society and lead organiser
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09:05-09:30 |
Talk title TBC
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09:30-09:45 |
Discussion
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09:45-10:15 |
Enhanced rock weathering drives soil carbon sequestration and nutrient cycling: Evidence from Chinese plantations and global meta-analysis
Enhanced rock weathering (ERW) is a promising carbon dioxide removal (CDR) strategy for soil carbon sequestration and climate mitigation. This study integrates a 2-year field monitoring in Chinese tropical rubber plantations and global meta-analysis to examine ERW via crushed rock amendments on soil carbon dynamics and ecosystem functions. Field study show ERW increased soil organic carbon (SOC) and mineral-associated organic carbon (MAOC) in tropical regions, elevated carbon-fixation genes while reducing carbon-degradation genes in soil microbes (enhancing SOC retention), and improved nitrogen cycling, root phosphorus acquisition, and ecosystem multifunctionality. Furthermore, a global meta-analysis of 74 studies indicates crushed rocks increased SOC (3.8%), MAOC (6.1%), and particulate organic carbon (7.5%) on average, with no impact on other fractions. SOC accrual was driven by exchangeable calcium, microbial biomass, and soil structure, co-controlled by local climate. Machine learning simulations of global croplands reveal strong site-dependency in ERW’s SOC effects: positive in low-latitude regions (40°N-40°S) but negative in high-latitude areas. Models also indicate an optimal ERW application range of 50-500 g m-1 for maximizing SOC sequestration, beyond which positive effects diminish and negative ones intensify. This empirical synthesis supports ERW, particularly with Ca-rich amendments, is an effective strategy for CDR by enhancing SOC stabilization and long-term CO2 sequestration via mineral-organic interactions and indirectly driving biological carbon sequestration process. Maximizing ERW’s positive CDR effects requires comprehensive consideration of site-specific climatic and soil characteristics, alongside appropriate application rates and durations. ![]() Dr Tongtong XuNorthwestern Polytechnical University, China ![]() Dr Tongtong XuNorthwestern Polytechnical University, China Dr Tongtong Xu, a postdoctoral fellow at the School of Ecology and Environment, Northwestern Polytechnical University, specializes in soil carbon sequestration and global change. Her research focuses on Biological/Ecological Carbon Capture, Utilization, and Storage (Bio-CCUS/Eco-CCUS) strategies for enhancing soil carbon sequestration. Her research group conducts nationwide field experiments exploring Enhanced Rock Weathering (ERW) applications in Chinese plantation forests across multiple climatic regimes. This research aims to comprehensively assess the effects of ERW on forest ecosystems by examining silicate weathering-driven pedogenic carbonate formation, soil organic carbon sequestration and stabilization, tree growth and root phosphorus-acquisition strategies, greenhouse gas emission and ecosystem multifunctionality. The research findings have been published in Global Change Biology, Communications Earth & Environment and Journal of Environmental Management. |
10:15-10:30 |
Discussion
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10:30-11:00 |
Break
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11:00-11:30 |
EW and rice agriculture in India
![]() Mr Shantanu AgarwalMati Carbon PBC, US ![]() Mr Shantanu AgarwalMati Carbon PBC, US Shantanu Agarwal is the Founder and CEO of Mati Carbon, a climate-tech company advancing Enhanced Rock Weathering (ERW) for durable carbon dioxide removal. An alumnus of IIT (Chemical Engineering) and Harvard Business School, Shantanu brings over 20 years of experience across the energy, corporate, and development sectors. He previously co-founded Sustaera, a Direct Air Capture (DAC) company. At Mati, he is pioneering large-scale ERW deployments across India and sub-Saharan Africa, targeting both carbon removal and improved farm productivity for smallholder farmers. Mati’s scientific approach is anchored in collaboration with institutions such as Yale and IIT Kanpur, where the team continues to develop and refine methodologies for MRV (Measurement, Reporting, and Verification) of carbon sequestration. In 2025, Mati was awarded the $50M XPRIZE for Carbon Removal—becoming the first Global South-focused project to receive the grand prize—recognizing its potential to combine scalable climate impact with equitable adaptation. |
11:30-11:45 |
Discussion
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11:45-12:15 |
Organic carbon cycle feedbacks determine the climate mitigation potential of enhanced rock weathering in a forestry context
Enhanced rock weathering (ERW) for climate change mitigation is usually considered in the context of croplands. Yet rock dust can also be deployed to intensively managed (i.e. planted) forests. These forests now occupy 300 million hectares and frequently have appropriate infrastructure for rock dust deployment; they also occur in climatic zones that are favourable for rock weathering. A key question is whether the presence of trees (as opposed to crops) accelerates the weathering process, and whether long-lived vegetation serves as a sink for weathering products. To address this knowledge gap, we conducted a large-scale (12 ha) ERW trial in a newly planted forest. The ERW treatment was crossed in a fully factorial design with the addition of a forest soil inoculum, intended to re-establish populations of beneficial microbes which were presumably lost during the site’s multi-century prior use as a sheep pasture. We found that although rock dissolution proceeded relatively rapidly, most of the weathering products were either sorbed to soil exchange sites or taken up by plants, resulting in a significant increase in carbon sequestration into wood. Application of rock dust also enhanced soil respiration; as a result, more soil carbon was released to the atmosphere than was captured via weathering. Unexpectedly, introducing forest soil microbes to the site significantly slowed rock dissolution. Thus, plant and microbial responses determined both the sign and magnitude of weathering-related carbon dioxide fluxes five years after the first rock dust application. ![]() Dr Bonnie WaringImperial College London, UK ![]() Dr Bonnie WaringImperial College London, UK Dr Bonnie Waring is an ecosystem ecologist and Reader at Imperial College London. She leads the Waring Ecology Lab, whose members examine ecological controls on the exchange of carbon among plants, soils, and the atmosphere. Dr Waring’s recent research has explored nature-based solutions for climate change mitigation, and she serves as an advisor on this topic to philanthropic organizations and corporations such as Nestle. She received her PhD in Ecology from the University of Texas at Austin in 2013 and was an Assistant Professor of Biology at Utah State University, prior to joining Imperial College in 2020. |
12:15-12:30 |
Discussion
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Chair

Dr Chris Reinhard
Georgia Institute of Technology, US

Dr Chris Reinhard
Georgia Institute of Technology, US
Dr Chris Reinhard is an Associate Professor of Biogeochemistry and Georgia Power Chair in the School of Earth and Atmospheric Sciences at Georgia Tech, where his research focuses on greenhouse gas biogeochemistry, Earth system science, and carbon dioxide removal. Dr Reinhard was awarded the Alfred P. Sloan Fellowship in Ocean Sciences in 2015, a Sigma Xi Young Faculty Award in 2020, and the James B. Macelwane Medal from the American Geophysical Union in 2021. Much of his current work focuses on the mechanisms, monitoring, and verification of carbon removal technologies that manipulate Earth’s alkalinity cycle, in parallel with exploration of holistic incentives for responsible greenhouse gas mitigation and carbon management.
13:30-14:00 |
EW and Brazilian agriculture
Terradot is leading science-based farm trials to evaluate the agronomic benefits of basalt rock dust application across diverse farming systems in Brazil. This work supports the scaling of Enhanced Rock Weathering (ERW) as a carbon dioxide removal (CDR) strategy, while also delivering improvements in soil health and crop yields for farmers. Brazil’s diverse climates, soil types, and cropping systems provide an ideal environment for assessing the potential of basalt to enhance soil fertility and agricultural productivity. Field trials are being conducted across multiple partner farms to evaluate the effects of basalt on key agronomic indicators, including soil pH, base saturation, nutrient availability, and crop yield. These trials span a variety of environmental conditions and were designed to generate field-specific insights into how local factors—such as precipitation, elevation, and soil texture—influence basalt dissolution and its agronomic performance. Particular attention is being given to the spatial and temporal variability of soil indicators across different soil textures. Preliminary data from selected farms will be presented, including comparisons between basalt-treated and untreated control fields. While detailed results are still being collected and analysed, the presentation will highlight emerging trends and outline the methodological framework used to assess agronomic outcomes and co-benefits. This work contributes to the expanding body of evidence supporting ERW’s dual role in carbon removal and agricultural enhancement, and lays the foundation for scaling rock dust applications tailored to the Brazilian agricultural landscape. ![]() Dr Jonathan OjedaTerradot, Argentina ![]() Dr Jonathan OjedaTerradot, Argentina Dr Ojeda is a Science & Technology Executive with 15+ years of experience in environmental modeling, carbon removal, and sustainable agriculture. As Science Operations Lead at Terradot, he developed and scaled a soil carbon MRV platform to support ERW, leading the scientific work that helped secure Terradot’s Series A funding and major offtake agreements. His work integrates field protocols, remote sensing, GIS, and advanced modelling using MIN3P and APSIM to quantify inorganic and organic carbon at multiple scales. A widely published researcher in leading international journals, Dr Ojeda has developed open-source data tools and led multi-continent research teams under initiatives funded by the Gates Foundation, DOE, and CSIRO. He combines field expertise across 9 countries with deep modelling and programming skills in Python, crop/soil systems, and satellite data, bridging academia and carbon markets. His research targets uncertainty quantification, C sequestration, and land-use efficiency to accelerate science-based climate solutions. |
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14:00-14:15 |
Discussion
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14:15-14:45 |
River catchments as natural monitors of Enhanced Weathering: evidence from the Mississippi River
Accurately quantifying carbon dioxide removal (CDR) is critical for scaling enhanced weathering (EW) as a climate solution. River catchments serve as natural integrators for monitoring EW impacts at scale, capturing both spatially distributed application and downstream transport of weathering products. Using a large USGS dataset of US river chemistry, we simulate the silicate rock applications rates needed to observe a two SD signal above baseline. We find that EW signals are more likely to emerge in larger catchments with a high proportion of agricultural area, demonstrating the potential of this approach to monitor CDR from EW at scale. We use carbonate addition to the Mississippi River Basin—one of the largest agricultural catchments globally—as a case study and historical analog for EW. Compiling over a century of agricultural, chemical, and hydrological data, we show that ~75% of lime added to soils has been exported as alkalinity, indicating that liming has acted as a net CO₂ sink. This challenges current greenhouse gas accounting frameworks, such as those of the IPCC, which treat liming as a CO₂ source and rather suggests that carbonate-rock-based EW can be an efficient path to achieving CDR. Attributing emissions to acidity addition instead enables a more geochemically accurate and policy-relevant understanding of CO2 emissions. Moreover, we find that acid-base reactions in soils may contribute more to agricultural CO2 emissions than currently recognized. These findings highlight the utility of riverine fluxes as a robust, scalable proxy for EW-based CDR and call for a revision of agricultural carbon accounting protocols. ![]() Dr Tim Jesper SuhrhoffYale Center for Natural Carbon Capture, US ![]() Dr Tim Jesper SuhrhoffYale Center for Natural Carbon Capture, US Jesper is an isotope geochemist with a strong interest in both natural and enhanced silicate rock weathering. During his PhD, he applied multiple isotope systems to investigate how silicate weathering processes responded to past climate changes. His current research explores how—and to what extent—this natural carbon removal pathway can be accelerated to draw down more CO₂ from the atmosphere. Jesper develops and applies innovative methods, integrating soil, water, and model-based approaches to quantify CO₂ removal in enhanced weathering field trials. He also works with existing datasets to address key challenges in enhanced rock weathering, such as lag times between weathering and CO₂ sequestration, strategies for aggregating deployments to overcome signal-to-noise issues, the role of strong acid weathering, and the behaviour of initial weathering rates. Jesper enjoys working at the interface of geochemistry and climate solutions, bringing curiosity, scientific rigor, and a collaborative spirit to one of the most urgent challenges of our time. |
14:45-15:00 |
Discussion
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15:00-15:30 |
Break
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15:30-16:00 |
EW and net zero chocolate
![]() Miss Issi SteeleyLeverhulme Centre for Climate Change Mitigation, UK ![]() Miss Issi SteeleyLeverhulme Centre for Climate Change Mitigation, UK Issi is a PhD student studying the application of enhanced weathering within the cocoa industry. She joined the Leverhulme Centre for Climate Change Mitigation in 2023 on a BBSRC Industrial Case award between the University of Sheffield, Yale University and Mondelez International. She is supervised by Professor David Beerling FRS, Dr Dimitar Epihov, Dr Noah Planavsky and Dr Clare Stirling. |
16:00-16:15 |
Discussion
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16:15-16:45 |
Effects of enhanced weathering on fundamental soil properties
Enhanced weathering (EW) is an intuitively attractive carbon dioxide removal strategy that involves the application of highly weatherable silicate rock powder (usually basalt) to soils to accelerate natural chemical weathering. While primarily developed for its potential in mitigating climate change by capturing atmospheric CO2, EW also has the potential to fundamentally alter soil biogeochemistry and pedogenesis. In this talk, we outline mechanisms through which EW may impact soil properties and functions. Using recent results from an EW field trial initiated in 2020 in vineyard of western Switzerland, we explore the effect of a single twenty ton per hectare basalt powder application on soil physical, mineralogical, chemical, and biological properties. Findings show that the basalt application stimulated soil biological activity and led to the formation of poorly crystalline secondary aluminosilicates and oxides. Altogether, these results indicate that soil-forming processes are significantly modified by the basalt powder addition. While the increase in biogeochemical reactivity of basalt-amended soils could be beneficial in many cases, many unknowns remain regarding the long-term sustainability of the practice. Overall, the integration of EW into sustainable agricultural practices may present a promising avenue for improving soil fertility in some agroecosystems, but could also pose significant risks for some soils and climate zones. Investment in long-term field studies is necessary to provide a full understanding of environmental consequences of EW and optimize implementation strategies. ![]() Dr Stephanie GrandUniversity of Lausanne, Switzerland ![]() Dr Stephanie GrandUniversity of Lausanne, Switzerland Stephanie is a soil scientist broadly interested in pedogenesis and soil biogeochemistry. She obtained her PhD in Resource Management and Environmental Studies at the University of British Columbia, Canada in 2011. Following postdoctoral work on the carbon balance of bioenergy plantations at Michigan State University, she joined the University of Lausanne as a pedologist in 2015. She teaches several courses in soil science and the geology of the Earth surface. Her research group focuses on topics such as incipient soil formation in newly deglaciated terrain, impacts of agricultural management practices on organic matter dynamics and organo-mineral interactions, and relations between weathering processes and soil properties. |
16:45-17:00 |
Discussion
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17:00-18:15 |
Poster session
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Chair

Professor Rachael James
University of Southampton, UK

Professor Rachael James
University of Southampton, UK
Rachael James is Professor of Geochemistry and Director of the NERC IGNITE Doctoral Landscape Award in the School of Ocean and Earth Science at the University of Southampton, UK. She is renowned for the development and application of novel chemical and isotopic techniques to improve understanding of ocean and earth processes and to address critical environmental and societal challenges. As part of the Leverhulme Centre for Climate Change Mitigation she leads the development of methodologies for removing CO2 from the atmosphere by enhanced rock weathering. Rachael serves on the scientific advisory councils of the GFZ Helmholtz Centre for Geosciences and the multi-institute research mission Marine Carbon Sinks in Decarbonisation Pathways and is a member of the awards committee of the European Association of Geochemistry (EAG). She was awarded a Philip Leverhulme Prize in 2006, an EAG Distinguished Lectureship in 2014 and was the Marie Tharp Lecturer in 2022.
09:00-09:30 |
Role of models in tracking carbon removal by EW
![]() Dr Chris ReinhardGeorgia Institute of Technology, US ![]() Dr Chris ReinhardGeorgia Institute of Technology, US Dr Chris Reinhard is an Associate Professor of Biogeochemistry and Georgia Power Chair in the School of Earth and Atmospheric Sciences at Georgia Tech, where his research focuses on greenhouse gas biogeochemistry, Earth system science, and carbon dioxide removal. Dr Reinhard was awarded the Alfred P. Sloan Fellowship in Ocean Sciences in 2015, a Sigma Xi Young Faculty Award in 2020, and the James B. Macelwane Medal from the American Geophysical Union in 2021. Much of his current work focuses on the mechanisms, monitoring, and verification of carbon removal technologies that manipulate Earth’s alkalinity cycle, in parallel with exploration of holistic incentives for responsible greenhouse gas mitigation and carbon management. |
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09:30-09:45 |
Discussion
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09:45-10:15 |
Rivers, EW and C-cycling
Dr Pete RaymondYale University, US Dr Pete RaymondYale University, US Raymond received his BS from Marist College and his PhD from the Virginia Institute of Marine Science (College of William and Mary). He is a fellow of the American Association for the Advancement of Science, a member of the Connecticut Academy of Science and Engineering, received the Coastal and Estuarine Research Federations Cronin Award for Young Scientists, a ISI highly cited author, and a past Editor and Chief of the American Geophysical Union’s journal Global Biogeochemical Cycles. |
10:15-10:30 |
Discussion
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10:30-11:00 |
Break
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11:00-11:30 |
EW soil processes
![]() Professor Isabel Montanez NASUniversity of California, Davis, US ![]() Professor Isabel Montanez NASUniversity of California, Davis, US Isabel Patricia Montañez holds degrees in geoscience from Bryn Mawr College (BSc 1981) and Virginia Polytechnic Institute (PhD 1990). She was an assistant and associate professor in the Department of Earth Sciences, UC Riverside before joining the faculty in the Department of Earth and Planetary Sciences at UC Davis in 1998, where she is currently a Chancellor’s Leadership Distinguished Professor. She serves as the Director of the UC Davis Institute of the Environment. Her research focuses on reconstructing past perturbations to global carbon cycling and regional climate change, in particular, during periods of warming and major transitions. Isabel is a member of the National Academy of Sciences (’21), a fellow of several professional societies (AAAS, AGU, The Geochemical Society, European Soc. of Geochemistry, GSA), a past Fellow of the John Simon Guggenheim Memorial Foundation and a Fellow of the California Academy of Sciences, as well as the recipient of multiple national and international awards and medals (Arthur L Day Medal, Jean Baptiste Lamarck Medal, Francis J Pettijohn Medal). She served as President of The Geological Society of America from 2017 to 2018 and as Chair of the Board of Earth Sciences and Resources (2019-2024) and newly appointed Chair of the Division of Life and Earth Sciences at the National Academies of Sciences, Engineering, and Medicine. |
11:30-11:45 |
Discussion
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11:45-12:15 |
Atmospheric carbon dioxide removal via mineral-based ocean alkalinization
Conventional mitigation measures alone will be insufficient to limit global warming below 2°C, necessitating gigaton-scale atmospheric carbon dioxide removal (CDR). Oceans play a critical role in the global carbon cycle, absorbing 25 to 30% of anthropogenic CO2 emissions. The chemical weathering of carbonate and silicate rocks significantly contributes to atmospheric CO2 drawdown over geological time scales. Mineral-based ocean alkalinity enhancement (OAE) is a CDR technique that seeks to accelerate this natural process by distributing finely ground reactive minerals (e.g. olivine, lime) into suitable coastal and shelf environments. Laboratory experiments have demonstrated the potential of some silicate minerals, such as basalt and olivine, to be used as source material. In a similar fashion, some waste streams of the current mining industry have been examined for their potential. It remains to be tested, however, whether the dissolution rates obtained in these controlled experiments can be translated to the real world. In recent years, a number of dedicated mesocosm experiments and restricted field trials have been conducted to assess the sequestration potential and technology feasibility of mineral-based ocean alkalinity enhancement under more realistic, natural conditions. This presentation will provide an overview of the current state of knowledge. ![]() Professor Filip MeysmanUniversity of Antwerp, Belgium ![]() Professor Filip MeysmanUniversity of Antwerp, Belgium Filip Meysman is research professor within the Department of Biology at the University of Antwerp (Belgium). He coordinates the newly founded Centre of Excellence on Microbial Systems Technology, and heads the GeoBiology research team, which investigates the biogeochemistry of the ocean floor, embracing interdisciplinary approaches (biology-chemistry-physics). In recent projects, he’s investigating how marine sediments can be used to sequester CO2 from the atmosphere via ocean alkalinization (www.coastal-carbon.eu) and he’s looking at the intriguing and exciting phenomenon of microbial electricity in the ocean floor (www.microbial-electricity.eu). Over his career, he has authored >170 research articles and received several awards recognizing scientific excellence (FWO Odysseus, ERC, NWO Vici, AIAS fellowship, Prigogine medal). Additionally, Filip Meysman is highly active in science communication and scientific outreach to the broader public, as coordinator of large-scale citizen science projects (www.curieuzeneuzen.be). |
12:15-12:30 |
Discussion
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Chair
Dr Noah Planavsky, Yale University, USA
Dr Noah Planavsky, Yale University, USA
Noah Planavsky is an Assistant Professor in the Department of Geology and Geophysics at Yale University. He studies the connections between the evolution of Earth-system processes, biological innovation, and ecosystem change—foremost in Earth’s early history. His research integrates field, petrographic, and geochemical work. A central theme of his research has been trying to piece together the history and effects of Earth’s oxygenation. He has also worked on reconstructing the evolution of atmospheric carbon dioxide levels through Earth’s history. Current projects include coupling paleoredox proxies, calibrating novel metal isotope systems in modern aqueous systems and disentangling the distribution and diagenetic history of traces metals in sedimentary rocks.
13:30-14:00 |
Public acceptability of enhanced weathering in the global north and global south
In order to conduct responsible research and innovation well-engaged and informed communities must be embedded within the research process contributing to the decisions made about carbon dioxide removal approaches to tackle climate change. Using mixed methods we extensively explored how publics perceive enhanced weathering in the UK, US, Australia and Malaysia including nationally representative surveys (UK, US and Australia) alongside deliberative workshops in the UK, US and Malaysia. Findings illustrated that enhanced weathering was an unfamiliar strategy and produced a range of common concerns in all participants. Some of the environmental and social impacts included those on the marine environment, human health, and concerns regarding mining (particularly within Malaysia). The dependency of smallholders’ livelihoods on agriculture also resulted in questions about long-term impacts on crops and soils. In the Malaysian groups the economy was a prevalent topic, especially for more rural participants, with interest in how the strategy could be financially beneficial to smallholders including possible co-benefits on their crops. Overall our research shows participatory processes can and should be used to ensure socially responsible upscaling of enhanced weathering with our participants producing meaningful insights and directions for future research. However public acceptance will be dependent on meaningful deep emissions reductions being made, having suitable governance in place and serious consideration of appropriate economic and social costs if enhanced weathering is to be utilised. ![]() Dr Elspeth SpenceCardiff University, UK ![]() Dr Elspeth SpenceCardiff University, UK Elspeth has a background in environmental psychology and is interested in public risk perceptions and barriers to engagement with climate change and environmental issues. She is currently working on a project aimed at exploring how the public perceive carbon dioxide removal technologies with a focus on enhanced rock weathering. She completed her undergraduate and masters degrees in Psychology at the University of Aberdeen initially working on how types of information influenced public engagement with climate change. Her masters research investigated how trust in different information sources affected willingness to adopt pro-environmental behaviours. She obtained her PhD from Cardiff University where she worked on an interdisciplinary project using mixed methods to explore public risk perceptions of ocean acidification through a mental models approach. |
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14:00-14:15 |
Discussion
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14:15-14:45 |
US & EU policies relevant to incentivising EW
![]() Ms Anu KhanCarbon Removal Standards Initiative, US ![]() Ms Anu KhanCarbon Removal Standards Initiative, US Anu Khan is the founder and executive director of the Carbon Removal Standards Initiative (CRSI), a nonprofit that provides technical assistance and capacity building for carbon removal policy, focused on carbon quantification. Anu previously led the Science & Innovation team at Carbon180, a DC-based policy think tank, and co-led climate grantmaking at Founders Pledge, a philanthropic fund focused on high-impact policy advocacy for energy innovation. An electrochemist by training, Anu holds a BS in chemistry from Princeton and an MS in chemistry from Caltech. |
14:45-15:00 |
Discussion
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15:00-15:30 |
Break
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15:30-16:00 |
Panel discussion I: Engaging local communities
![]() Dr Livia FritzAarhus University, Denmark ![]() Dr Livia FritzAarhus University, Denmark Livia Fritz is a researcher at the Center for Energy Technologies at Aarhus University (Denmark). As an environmental social scientists, she explores the interfaces between science, policy, and society in the field of climate, with a particular focus on power dynamics public engagement. As part of the European projects GENIE and UPTAKE she currently works on the social and political dimensions of carbon dioxide removal methods. ![]() Professor Nick PidgeonCardiff University, UK ![]() Professor Nick PidgeonCardiff University, UK Nick is a social scientist who holds a Chair in environmental psychology and risk at Cardiff University where he directs the Understanding Risk Research Group. In his early career he investigated the human and organisational preconditions of large-scale disasters. Latterly he has worked on public engagement with environment and climate change, net zero technologies, and new technology risks. He has researched a range of social and ethical issues associated with geoengineering and carbon removal since 2009, and is a Co-Investigator of the Leverhulme Centre for Climate Change Mitigation investigating public perceptions and engagement with enhanced rock weathering in North America, the UK, and South East Asia. In 2006 Nick chaired the UK’s Cross-Party Parliamentary inquiry ‘Is a Cross-Party Consensus on Climate Change Possible – or Desirable?’ which recommended the setting up of the UK Climate Change Committee. He was awarded an MBE in 2014 for services to climate change and energy security awareness and became a Fellow of the British Academy in 2023. ![]() Professor Susan Owens OBE FBAUniversity of Cambridge, UK ![]() Professor Susan Owens OBE FBAUniversity of Cambridge, UK Susan Owens is Emeritus Professor of Environment and Policy, University of Cambridge and a Fellow of the British Academy. Her research lies in the field of environmental governance, focusing on the role of knowledge and expertise in policy formation and change. Her book Knowledge, Policy, and Expertise (OUP 2015) explored these issues through an in-depth analysis of the practices and influence of the former Royal Commission on Environmental Pollution (RCEP). She chairs the Programme Advisory Board for the five-year ESRC ACCESS project (Advancing Capacity for Climate and Environmental Social Science) and is a member of Defra’s Science Advisory Council (chairing one of its sub-groups, the Social Science Expert Group) and of the Board of the Parliamentary Office of Science and Technology. Previously, she has chaired the Science Advisory Council of the Stockholm Environment Institute and been member of RCEP, as well as serving on a range of other advisory bodies. |
16:00-16:15 |
Discussion
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16:15-17:00 |
Panel discussion II: EW-MRV: future opportunities
![]() Professor Rachael JamesUniversity of Southampton, UK ![]() Professor Rachael JamesUniversity of Southampton, UK Rachael James is Professor of Geochemistry and Director of the NERC IGNITE Doctoral Landscape Award in the School of Ocean and Earth Science at the University of Southampton, UK. She is renowned for the development and application of novel chemical and isotopic techniques to improve understanding of ocean and earth processes and to address critical environmental and societal challenges. As part of the Leverhulme Centre for Climate Change Mitigation she leads the development of methodologies for removing CO2 from the atmosphere by enhanced rock weathering. Rachael serves on the scientific advisory councils of the GFZ Helmholtz Centre for Geosciences and the multi-institute research mission Marine Carbon Sinks in Decarbonisation Pathways and is a member of the awards committee of the European Association of Geochemistry (EAG). She was awarded a Philip Leverhulme Prize in 2006, an EAG Distinguished Lectureship in 2014 and was the Marie Tharp Lecturer in 2022. ![]() Dr Matthew ClarksonInPlanet GmbH, UK ![]() Dr Matthew ClarksonInPlanet GmbH, UK Dr Clarkson has been the Head of Carbon at InPlanet since 2022, bridging business and science to advance climate solutions. His academic background encompasses Geology, Geochemistry, and Earth Systems Science, with a BSc from Durham University, MSc from RHUL and UCL, and a PhD from the University of Edinburgh. His postdoctoral work at the University of Otago (NZ) and ETH Zurich focused on Earth System recovery; developing, refining and applying novel geochemical isotope tools and geochemical modelling to link terrestrial and oceanic carbon cycles. He particularly embraces the inherent complexity of geochemical tracing to investigate various components within intricate systems. At InPlanet, he utilises this approach with systems thinking to lead MRV and carbon credit certification. ![]() Dr Zeke HausfatherStripe, Inc., US ![]() Dr Zeke HausfatherStripe, Inc., US Zeke Hausfather is Climate Research Lead for Stripe. He is a climate scientist whose research focuses on observational temperature records, climate models, carbon removal, and mitigation technologies. Zeke also works as a research scientist with Berkeley Earth and is a science contributor to Carbon Brief. He was previously the senior climate analyst at Project Drawdown, the director of climate and energy at the Breakthrough Institute, the lead data scientist at Essess, the chief scientist at C3.ai, and the cofounder and chief scientist of Efficiency 2.0. He has masters degrees in environmental science from Yale University and Vrije Universiteit Amsterdam and a PhD in climate science from the University of California, Berkeley. Dr Noah Planavsky, Yale University, USA
Dr Noah Planavsky, Yale University, USANoah Planavsky is an Assistant Professor in the Department of Geology and Geophysics at Yale University. He studies the connections between the evolution of Earth-system processes, biological innovation, and ecosystem change—foremost in Earth’s early history. His research integrates field, petrographic, and geochemical work. A central theme of his research has been trying to piece together the history and effects of Earth’s oxygenation. He has also worked on reconstructing the evolution of atmospheric carbon dioxide levels through Earth’s history. Current projects include coupling paleoredox proxies, calibrating novel metal isotope systems in modern aqueous systems and disentangling the distribution and diagenetic history of traces metals in sedimentary rocks. |