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San Carlos, United States
1-10 Employees
2018
DAC City is a Silicon Valley company focused on bringing carbon dioxide (CO2) Direct Air Capture technology to the myriad of industrial CO2 gas users around the world. Founded by a team of seasoned technology firm pioneers, DAC City believes that the most effective methods of Direct Air Capture haven’t been discovered yet, and our mission is to accelerate their development and deployment at scale. Our core technology is built on decades of deployment of highly porous carbon composite ceramic monoliths, utilizing a proprietary method of surface activation, and formation and control of pore geometry, enhancing the adsorption, desorption, working capacity, and energetics of carbon dioxide capture.
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Featured
Direct Air Capture Prototype | Direct Air Capture Prototype to Restore the Climate by Reducing Atmospheric CO2
... Direct Air Capture Prototype | Direct Air Capture Prototype to Restore the Climate by Reducing Atmospheric ...
Eindhoven, Netherlands
11-50 Employees
2019
Carbyon is a start-up company with the purpose of turning direct air capture into an affordable and scalable technology that can be used to turn the corner on climate change. We are scientists and engineers with a shared dream: to tackle climate change. Carbyon was founded in 2019 as a spin-off company from Dutch research institute TNO. Carbyon is a science-heavy team, balanced by the support of experienced business professionals. Carbyon is located at the High Tech Campus in Eindhoven, the Netherlands. We are a team of scientists and engineers working closely together on one common goal: scale up this technology cost-effectively and provide the world with a powerful tool in the fight against climate change. Carbyon is part of a rich ecosystem of universities, research institutes, corporates and partnerships. This gives Carbyon access to virtually any piece of knowledge and/or infrastructure that is needed to develop our technology and increase our impact.
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We develop affordable direct air capture technology
... We develop affordable direct air capture technology Carbyon’s solution first saw light at Dutch research institute TNO in 2018. While working there, Hans De ...
Weil der Stadt, Germany
11-50 Employees
2001
Welcome to PlasmaAir AG, a German leader in plasma technology and air pollution control with over 20 years of experience. At PlasmaAir, research and development are paramount, fostering innovation through collaborative R&D initiatives with academic institutions. At PlasmaAir AG, we lead the charge in revolutionizing industrial processes through cutting-edge plasma torch technology. PlasmaAir AG is working on technologies for climate protection and the energy transition. We are leaders in the development of high-performance plasma source technology. Furthermore, we are working on technologies for the separation of CO2 from ambient air (direct air capture). As pioneers in designing, implementing, and commercializing advanced plasma processes, we specialize in the development of plasma sources for applications in waste disposal, pyrolysis, CO2 mitigation, and hydrogen production through methane decomposition. Collaborating closely with esteemed research institutes and universities, PlasmaAir efficiently addresses complex problems, drawing on our expertise in small-scale production to deliver flexible solutions for specific exhaust air challenges.
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Direct Air Capture
... Direct Air Capture Direct air capture (DAC) ist ein Verfahren zur Gewinnung von Kohlenstoffdioxid (CO2) direkt aus der Umgebungsluft. Grundprinzip ist, dass Umgebungsluft durch einen Abscheideapparat strömt, der einen Teil des CO2 entzieht. Ergebnis des Verfahrens ist reines ...
Timrå kommun, Sweden
1-10 Employees
2020
Our vision is to build and initiate a vast number of Direct Air Capture (DAC) plants before 2030. Marketing of the Prosharp automatic skate sharpeners to a world leading position. Dr Hanak is the Senior Lecturer in Energy and Process Engineering at Cranfield University. Aggressive emissions reductions are imperative, and large-scale carbon removal is also required. Through leading Direct Air Capture technologies from Carbon Engineering Ltd. Aggressive emission reductions are essential, as is large-scale carbon removal. By 2050 the whole world needs to achieve zero emissions to prevent the risk of a temperature rise of over 2 degrees Celsius. CO2 emissions remain in the atmosphere for thousands of years.
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Nordic DAC Group
... Building Direct Air Capture voluntary carbon markets while deploying leading DAC tech. Tackle unavoidable, hard to reduce and historical carbon dioxide emissions. ...
New York, United States
1-10 Employees
2019
With each carbon molecule removed from the atmosphere, DAC provides authentic climatic cooling... and improves the likelihood of limiting planetary warming to under 2˚ C relative to pre-industrial levels. AIR TO EARTH holds U.S. patents on systems and methods that improve the efficiency and lower the cost of DAC. We are presently performing bench scale tests on these systems and methods - part of our plan to construct a commercial-scale demonstration module and an A2E DAC Unit that arranges 48 such modules in a hydraulically efficient and patented manner. We anticipate performing carbon removal services for "net-zero" corporates who desire to remove their difficult to abate carbon emissions in a measurable way. Demand for these services is projected to grow into a trillion-dollar industry, which will be priced to generate infrastructure level returns on investment.
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Featured
HOME | AIR TO EARTH | DIRECT AIR CAPTURE | CARBON REMOVAL
... HOME | AIR TO EARTH | DIRECT AIR CAPTURE | CARBON ...
Berlin, Germany
1-10 Employees
2022
Ucaneo develops a pioneering biomimetic Direct Air Capture technology. Ucaneo develops fully electric Direct Air Capture units produced in assembly lines. Ucaneo’s technology enables cost efficient removal of CO2 from air. Ucaneo aims to open the gates to a whole new sector of climate solutions. We believe that the most efficient way to restore a healthy atmosphere at these low CO2 concentrations, can be found at one of nature’s greatest miracles: the human lung.Direct Air Capture is normally very energy intensive and expensive. Similar to the human lung, we are not creating strong covalent bonds but just dissolve CO2 as bicarbonates (negatively charged ions in an electrolyte) leveraging (bio)catalysts and electrochemistry to remove the CO2 at room temperature highly energy efficiently..
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UCANEO * A pioneering biomimetic Direct Air Capture technology *
... UCANEO * A pioneering biomimetic Direct Air Capture technology * ...
New York, United States
11-50 Employees
2006
Founded in 2010, our passion has always been to develop the most cost-efficient way to capture CO2 from air through fundamental science and disciplined engineering. We believe that the circular carbon economy must be built in a way that increases prosperity, sustainability, and equity. We value extraordinary talent, excellent execution, passion for our mission, and a collaborative and constructive mindset in our colleagues and partners. As a pioneer in the industry, we bring unique strengths to this critical endeavor…. Our unique, state-of-the-art facilities enable us to continuously improve our solutions’ performance to achieve increasingly lower costs and larger scales. Global Thermostat is a recognized partner to businesses and governments who are leading the transition to a net-zero, circular carbon economy.
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About | Global Thermostat
... Our mission is to develop and deploy the world’s best direct air capture technologies to unlock new, air-based sources of carbon for the global economy and address climate change at scale. ...
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Moving Faster to build Direct Air Capture
... Pioneering direct air capture (DAC) technology with a focus on speed, scalability and a low capex design. ...
Pasadena, United States
11-50 Employees
2019
Our mission calls for explorers: those who are insatiably curious, thirsty for knowledge, open to new ideas, and willing to challenge the status quo. That shared mission is both a privilege and a responsibility that brings us together, shows us where we’re going, inspires our work, guides our decision making, and steadies us when the going gets rough. Because the effectiveness of the team is a priority, we believe in fostering a culture of togetherness by trusting in the good intent of our coworkers, going above and beyond to help each other out, and celebrating our wins. As a core foundation, we provide a psychologically, physically, and intellectually safe workspace. Further, we believe in supporting the professional and personal growth of our associates by providing ongoing training, career development opportunities, leadership coaching, and the flexibility needed for each team member to optimize their work/life balance. Further, we believe in fostering the explorer’s spirit in each other by sharing what we know, viewing mistakes as opportunities for growth, accepting different perspectives, and encouraging our colleagues as we fearlessly venture across uncertain territory. Using zero emissions energy, our DAC machines employ solid sorbents in a cyclic process that efficiently filters CO2 out of the atmosphere. For each carbon removal credit we deliver, we provide a complete third-party verification report.
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We’ve developed a deeply modular, open architecture platform for direct air capture.
... We’ve developed a deeply modular, open architecture platform for direct air capture. ...
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Direct Air Capture | Carbon-Impact
... Carbon-Impact aims to establish a disruptive Direct Air Capture technology that operates economically in humid air. The technology uses abundant, stable and porous materials that capture CO2 from air and can be regenerated at low energetic costs to produce high purity CO2. ...
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Some interesting numbers and facts about the results you have just received for Direct Air Capture
| Country with most fitting companies | United States |
| Amount of fitting manufacturers | 46 |
| Amount of suitable service providers | 28 |
| Average amount of employees | 1-10 |
| Oldest suiting company | 2001 |
| Youngest suiting company | 2022 |
Direct Air Capture (DAC) refers to a sophisticated technological process designed to extract carbon dioxide (CO2) directly from the atmosphere. This method employs chemical solutions or solid sorbents that selectively absorb CO2, even at its relatively low concentration in the atmosphere compared to other sources of CO2 emissions. Once captured, the CO2 can either be permanently sequestered underground, preventing it from contributing to global warming, or utilized in various industrial processes, such as synthetic fuel production, carbonation in beverages, or as a raw material in the production of plastics and concrete. The significance of DAC within the field of climate change mitigation is profound. As the urgency to address global warming intensifies, DAC emerges as a pivotal technology in the portfolio of carbon removal strategies. Unlike traditional carbon capture and storage (CCS) technologies that target emission sources, DAC operates independently of emission sources, offering a versatile solution to reduce atmospheric CO2 levels. This technology's scalability and ability to be deployed virtually anywhere make it a critical tool in achieving net-zero emissions goals and combating climate change. However, challenges such as high energy requirements and the need for significant infrastructure investment underscore the importance of ongoing research and development to optimize the efficiency and cost-effectiveness of DAC systems.
1. Reduced Environmental Footprint
Direct Air Capture (DAC) technology has a significantly lower environmental impact compared to traditional carbon capture methods. By directly removing CO2 from the atmosphere, DAC minimizes the need for extensive land use and water resources, offering a sustainable solution to climate change.
2. Location Flexibility
One of the standout advantages of DAC is its flexibility in location. Unlike other carbon capture methods that require proximity to emission sources, DAC systems can be set up virtually anywhere, allowing for strategic placement near renewable energy sources to optimize operational efficiency and reduce costs.
3. Scalability
DAC technology presents scalable solutions to carbon reduction efforts. It can be incrementally expanded to meet increasing demands for CO2 removal, making it a viable option for both small-scale and large-scale operations aiming to mitigate their carbon footprint.
4. Enhanced Purity
The CO2 captured through DAC is of high purity, which is advantageous for industrial applications requiring concentrated CO2. This purity simplifies storage and transportation processes, making DAC a more efficient and cost-effective solution for managing carbon emissions.
While evaluating the different suppliers make sure to check the following criteria:
1. Technology Efficiency
Ensure the supplier's Direct Air Capture technology demonstrates high carbon dioxide removal efficiency. Efficiency is paramount for both environmental impact and operational costs.
2. Scalability
Assess the supplier's ability to scale operations to meet your needs. Scalability is crucial for adapting to growing demands and regulatory changes.
3. Cost-effectiveness
Evaluate the cost structure of the technology, including installation, operation, and maintenance expenses. Cost-effectiveness ensures the sustainability of the project in the long term.
4. Energy Requirements
Consider the energy consumption of the Direct Air Capture technology. Lower energy requirements contribute to the overall sustainability and feasibility of the technology.
5. Carbon Storage Solutions
Investigate the supplier's solutions for the captured carbon dioxide, whether it's storage or utilization. This is essential for ensuring a complete carbon capture and storage (CCS) or utilization (CCU) solution.
6. Regulatory Compliance
Confirm that the supplier's technology complies with local and international regulatory standards. Compliance is necessary to avoid legal and operational risks.
7. Reputation and Experience
Research the supplier's track record and experience in the industry. A reputable supplier with a solid history is more likely to deliver reliable and innovative technology solutions.
Direct Air Capture (DAC) technology presents a groundbreaking approach for industries committed to reducing carbon footprints. One significant application is in the manufacturing sector, where companies integrate DAC systems to capture CO2 emissions directly from industrial processes. This captured carbon can be either stored safely, minimizing environmental impact, or utilized in the production of carbon-neutral or carbon-negative products, offering a sustainable alternative to traditional manufacturing practices. In the energy sector, DAC technology is revolutionizing how companies handle emissions. By capturing CO2 from the atmosphere, energy companies can produce cleaner fuels. This allows for the creation of a more sustainable energy loop, where carbon from the atmosphere is used in fuel production and then recaptured, significantly reducing the overall carbon footprint of the energy sector. Agriculture also benefits from DAC by utilizing captured carbon dioxide to enhance plant growth in controlled environments, such as greenhouses. This use of CO2 as a growth stimulant not only improves crop yields but also contributes to the agricultural industry's efforts to operate more sustainably by directly utilizing atmospheric CO2. These examples underscore the versatility and potential of Direct Air Capture technology across various B2B industries, offering innovative solutions for carbon reduction and sustainability.
Direct Air Capture (DAC), a pivotal technology in the fight against climate change, currently hovers around a Technology Readiness Level (TRL) of 6 to 7. This classification indicates that DAC systems have evolved from promising concepts to technologies demonstrated in relevant environments, showcasing their potential scalability and integration into carbon reduction strategies. The positioning at this intermediate TRL reflects a series of technical milestones and challenges. On the one hand, advancements in sorbent and solvent materials have significantly improved the efficiency of carbon dioxide capture, moving the technology beyond small-scale laboratory testing to larger pilot projects that capture thousands of tonnes of CO2 annually. Innovations in energy integration and reduction of operational costs further underscore the progress toward commercial viability. However, the technology's ascent to higher readiness levels is tempered by critical hurdles, including the need for substantial energy inputs, the management of captured CO2, and the development of robust lifecycle assessments to ensure net environmental benefits. The scale-up of DAC technologies also necessitates considerable advancements in manufacturing processes and infrastructure, alongside supportive policy frameworks to foster adoption and integration into existing carbon management strategies. These technical and systemic challenges underline the current TRL, signifying a technology on the cusp of broader application yet requiring further refinement and demonstration to achieve full commercial deployment.
In the Short-Term, advancements in Direct Air Capture (DAC) technology are expected to focus on enhancing efficiency and reducing operational costs. Researchers are developing new sorbent materials that can capture CO2 more effectively at lower energy costs. Additionally, pilot projects across the globe are scaling up, allowing for real-world testing and optimization of DAC systems. This phase is crucial for proving the viability of DAC as a practical solution to carbon reduction. The Mid-Term phase will likely see the integration of DAC with renewable energy sources, further reducing the carbon footprint of the technology itself. Breakthroughs in energy storage and solar and wind technology will enable DAC plants to operate more sustainably and autonomously. Moreover, legislative and financial support mechanisms will start to mature, encouraging broader adoption and investment in DAC projects. This period will also witness the beginning of DAC's contribution to achieving net-zero targets in various industries, particularly those that are hard to decarbonize. Looking into the Long-Term, DAC is anticipated to become a cornerstone of global carbon management strategies. Technological advancements will have significantly lowered costs, making it a competitive option for large-scale deployment. Innovations in material science and chemical engineering are expected to lead to next-generation DAC systems that are highly efficient and adaptable to different environments. By this stage, DAC could be instrumental in reversing atmospheric CO2 levels, playing a critical role in climate restoration efforts worldwide.
