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blog.verde.ag article

Exploring the Scalability of Carbon Capture Solutions - Verde AgriTech - Blog (english)

https://blog.verde.ag/en/carbon-capture-solutions-scalability/

Exploring the scalability of carbon capture solutions. # Exploring the Scalability of Carbon Capture Solutions. ## Different carbon capture solutions and their scalability. Enhanced Rock Weathering or ERW is one of the most promising carbon capture solutions, being cost effective and not only has potential to remove carbon dioxide from the atmosphere, but also to improve soil quality and fertility. Ocean fertilization is yet another carbon capture solution that has potential to be utilized to mitigate climate change. Although ocean fertilization offers a natural and potentially low-cost method of carbon capture, its scalability is limited to the growth rate of phytoplankton and the availability of nutrients. ## Carbon capture solutions are powerful tools to help mitigate climate change, but their scalability needs to be studied and improved. In this context, Enhanced Rock Weathering, direct air capture, bioenergy with carbon capture and storage, ocean fertilization, and carbon capture and storage are promising carbon capture solutions with varying levels of scalability.

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re-tv.org article

Scaling Carbon Capture Technologies - RE:TV

https://www.re-tv.org/articles/guloren-turan

# Scaling Carbon Capture Technologies. ### Accelerating the deployment of carbon capture, removal, use, and storage technologies globally. To meet global climate goals, we need to capture and store a billion tonnes of CO2 by 2030, and around 6 billion tonnes by 2050. Carbon capture, utilisation and storage (CCUS) refers to a wide range of technologies that capture CO2, either at large emissions sources like power plants or industrial complexes, or from the atmosphere. There are currently 50 operational carbon capture and storage facilities around the world with the ability to store 50 million tonnes of CO2 each year. Policy, investment and financial frameworks like carbon markets are all essential to unlocking opportunity of this scale. Are we prepared to process larger amounts of captured carbon than ever before? Guloren emphasises that, even at scale, CCUS does not negate the urgent need for industries to reduce carbon emissions. Using Direct Air Capture to remove carbon dioxide from the atmosphere. Accelerating carbon capture from natural chemical weathering.

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spectrum.ieee.org article

Scaling Carbon Capture to Billions of Tonnes - IEEE Spectrum

https://spectrum.ieee.org/scaling-carbon-capture-technology

## Create an account to access more content and features on *IEEE Spectrum* , including the ability to save articles to read later, download Spectrum Collections, and participate in conversations with readers and editors. ## Join the world’s largest professional organization devoted to engineering and applied sciences and get access to this e-book plus all of *IEEE Spectrum’s* articles, archives, PDF downloads, and other benefits. Global map showing small-scale direct air carbon capture projects and storage sites. To hold warming below 2 °C, a total of 525 to 755 gigatonnes of carbon dioxide will need to be removed from the atmosphere by 2100, according to a 2018 review study by an international research group led by the Mercator Research Institute on Global Commons and Climate Change. All novel methods, such as DAC, biochar, and enhanced rock weathering, remove less than 2 million tonnes a year, according to the 2024 State of Carbon Dioxide Removal study.

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forbes.com article

The Realistic Path To Scalable Carbon Capture - Forbes

https://www.forbes.com/sites/peterbendorsamuel/2025/09/11/the-realistic-path-…

Scaling CCU will take more than better technology. It requires ecosystems that connect infrastructure, markets, and policy. Integrated

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energy.gov official

Scaling Carbon Capture for Hard-to-Abate Industries in the United States and Globally | Department of Energy

https://www.energy.gov/hgeo/articles/scaling-carbon-capture-hard-abate-indust…

The request for information is focused on 11 industries: petrochemical, ammonia, aluminum, iron-steel, refining, soda ash, lime, pulp and paper, cement, glass, and LNG, with carbon dioxide equivalent emissions of 479 million tonnes/year in the United States and 9,487 million tonnes per year globally (Table 1). The paper also analyzed how pooling emissions streams from facilities with different concentrations of carbon dioxide to a central capture site would reduce costs even further.[8] To support region-specific responses and identification of collaboration opportunities, Figure 1 shows industrial facilities in the United States along with locations of potential storage sites and FECM projects. Although U.S. emissions represent ~5% of global carbon dioxide emissions in these industries, many international companies have facilities in the United States (Table 1). Nearly 30 percent of industrial plants in the United States, including petrochemical, ammonia, aluminum, iron and steel, refining, soda and ash, lime, and pulp and paper, and more than 50 percent of cement and glass facilities, have an international parent company (Figure 2).

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