Tree
Trees are one of nature’s most effective tools for fighting climate change. Through a process called carbon sequestration, they absorb CO₂ from the atmosphere during photosynthesis and store it in their trunks, branches, leaves, and roots. This stored carbon remains locked away for decades, helping reduce the concentration of greenhouse gases that warm our planet.
Each tree acts as a natural carbon reservoir. As it grows, it captures CO₂ and converts it into biomass wood and organic matter. Part of this carbon also enters the soil through leaf litter and root systems, where it can remain for hundreds of years.
The amount of carbon a tree can store depends on several factors, including its species, age, size, and growing conditions. Fast-growing trees absorb carbon quickly, while older, denser trees store large amounts over time. Forests as a whole are especially powerful, since they combine thousands of trees that continuously cycle and store carbon across multiple layers of vegetation and soil.
Protecting and expanding forested areas is one of the most effective ways to combat climate change. When trees are conserved, restored, or newly planted, they remove significant amounts of CO₂ from the atmosphere — creating cleaner air, healthier ecosystems, and a more sustainable future for all.
AGRICULTURAL LANDS
Agricultural lands have a remarkable potential to act as carbon sinks, capturing and storing carbon in both plants and soils. Through photosynthesis, crops and grasses absorb CO₂ from the atmosphere and convert it into organic matter. When managed sustainably, these systems not only produce food but also help mitigate climate change by locking carbon into the ground.
The majority of carbon in agricultural ecosystems is stored in the soil. Roots, crop residues, and organic fertilizers contribute to the build-up of soil organic carbon (SOC) one of the most important indicators of soil health. Practices such as cover cropping, crop rotation, reduced tillage, organic amendments, and agroforestry enhance this natural process by increasing biomass input and reducing carbon loss.
Healthy soils rich in organic carbon improve fertility, water retention, and biodiversity, creating a positive cycle that benefits both farmers and the environment. In contrast, conventional practices like intensive tillage or overuse of chemicals can release stored carbon back into the atmosphere, contributing to greenhouse gas emissions.
By adopting regenerative agriculture and climate-smart land management, farmers can transform their fields into long-term carbon stores. Every hectare of well-managed agricultural land becomes a powerful ally in the fight against climate change capturing carbon, restoring ecosystems, and ensuring food security for future generations.
BIOMASS
Biomass refers to all organic material derived from living or recently living organisms such as plants, trees, agricultural residues, and organic waste. It represents a vital component of the global carbon cycle and plays an important role in carbon sequestration.
Through photosynthesis, plants absorb CO₂ from the atmosphere and store it in their tissues as carbon-based compounds. This stored carbon remains locked within the biomass until it decomposes or is used for energy production. When managed sustainably, biomass can provide renewable energy while maintaining a closed carbon loop meaning the CO₂ released during use is reabsorbed by new plant growth.
Different forms of biomass such as forest residues, crop by-products, algae, or biochar can significantly contribute to reducing atmospheric carbon. For example, biochar, a stable form of carbon produced from organic waste through pyrolysis, can remain in soils for hundreds of years, enhancing soil fertility while permanently storing carbon.
Sustainable biomass management not only mitigates greenhouse gas emissions but also supports circular economy goals, turning organic waste into valuable energy and soil resources. When produced and used responsibly, biomass serves as a bridge between renewable energy and natural carbon storage, helping create a more balanced and climate-resilient future.
MEASUREMENT
Measurement is the foundation of every reliable climate action. It refers to the quantification of carbon captured, stored, or emitted within a specific area such as forests, agricultural lands, or biomass systems. Accurate measurement makes it possible to understand environmental performance, set reduction targets, and verify impact.
Measurement is the foundation of every reliable climate action. It refers to the quantification of carbon captured, stored, or emitted within a specific area such as forests, agricultural lands, or biomass systems. Accurate measurement makes it possible to understand environmental performance, set reduction targets, and verify impact.
In carbon sequestration projects, measurement involves collecting data on biomass growth, soil carbon content, land cover changes, and atmospheric CO₂ reductions. Advanced technologies like satellite imagery, remote sensing, drones, and on-ground sampling are used to monitor these indicators with high precision.
By translating natural processes into measurable data, organizations can determine how much carbon is being sequestered and how land management practices influence long-term sustainability. These results form the basis for reporting, verification, and carbon credit certification under international standards.
At its core, measurement turns invisible climate benefits into scientifically proven, trackable outcomes ensuring transparency, accountability, and trust in the journey toward a low-carbon future.
VERIFICATION
Verification ensures that every measured environmental impact is accurate, transparent, and credible. It is the process of independently reviewing and confirming the results of carbon sequestration measurements to guarantee that the reported data truly reflects real-world climate benefits.
During verification, accredited third-party experts evaluate all project records, field data, and monitoring methods to confirm compliance with international standards. This step transforms raw measurements into trusted climate outcomes that can be confidently shared with partners, investors, and regulatory bodies.
Verification is also a key requirement for issuing carbon credits in voluntary and compliance markets. It provides assurance that carbon captured by forests, agricultural lands, or biomass systems is genuine, quantifiable, and permanent.
Ultimately, verification builds trust and accountability ensuring that every tonne of carbon claimed represents a real and lasting contribution to the global fight against climate change.
INCOME
Carbon credits represent verified reductions or removals of CO₂ and other greenhouse gases from the atmosphere. Each credit equals one metric ton of CO₂ that has been either captured through natural processes such as reforestation, soil regeneration, or biomass utilization or avoided through cleaner technologies and energy efficiency.
These credits can be traded or sold in carbon markets, allowing organizations, governments, and individuals to offset their emissions and support climate-positive projects. By purchasing carbon credits, companies can balance out the emissions they cannot yet eliminate, while funding initiatives that restore ecosystems and promote sustainable development.
Carbon credits are only created after rigorous measurement, reporting, and verification (MRV) to ensure transparency and credibility. Recognized standards certify that each credit reflects a real, additional, and permanent climate benefit.
In essence, carbon credits turn environmental responsibility into tangible climate action bridging the gap between emission sources and nature-based solutions, and empowering a global transition toward a net-zero future.
IŞIL ASLAN
CEO & Co-Founder
She is an environmental engineer and entrepreneur with over a decade of experience in sustainability, climate action, and environmental management. While pursuing her PhD in Environmental Engineering at Istanbul Technical University, she founded Carbon Nature, an innovative climate-tech initiative that quantifies and monetizes the carbon sequestration potential of natural ecosystems such as forests, agricultural lands, and biomass.
Before Carbon Nature, Işıl led environmental operations and sustainability programs for major corporations including THY and Turkcell managing compliance, carbon reporting, and circular economy projects across multiple sectors. Her professional journey bridges the gap between scientific research and practical climate solutions, driven by a belief that technology and nature can work hand in hand for a sustainable future.
Passionate about innovation, data-driven impact, and women’s leadership in green transformation, Işıl continues to inspire change by turning environmental responsibility into measurable climate value.
Sevgi AKIN
COO & Co-Founder
She is an industrial engineer and sustainability professional with strong expertise in Environmental, Social, and Governance (ESG) strategy, data analytics, and corporate sustainability compliance. As the Co-Founder and COO of Carbon Nature, she leads the operational development and ESG integration of the platform, transforming complex climate data into accessible, verifiable solutions for landowners and organizations.
She holds a Master’s degree in Software Engineering and combines her analytical background with a deep understanding of sustainability frameworks such as CSRD, SBTi, and the EU Green Deal. Before Carbon Nature, Sevgi worked at Accell Group, where she coordinated ESG reporting, renewable energy programs, and regulatory compliance across multiple European markets.
With a vision for connecting technology, transparency, and environmental impact, Sevgi focuses on scaling Carbon Nature’s systems and ensuring that every project contributes to measurable, science-based climate action. Her approach reflects a new generation of leadership data-driven, collaborative, and deeply committed to a sustainable future.
Prof. Dr. Levent Genç
SCIENTIFIC advısor
Prof. Dr. Levent Genç is a leading academic and researcher specializing in Geographic Information Systems (GIS), remote sensing, and land-use change modeling. He earned his Ph.D. in Agricultural and Biological Engineering from the University of Florida (USA) and currently serves as a Professor at Çanakkale Onsekiz Mart University.
With over 25 years of research experience, Prof. Genç has conducted pioneering studies on satellite data integration, geospatial analysis for agriculture, and environmental monitoring. His scientific work has been published in numerous international journals and presented at global conferences on precision agriculture, soil management, and climate adaptation.
He has led and contributed to several multinational research projects involving remote sensing-based land-use mapping, agricultural sustainability assessments, and climate change mitigation strategies. His academic leadership has helped bridge the gap between spatial data science and practical environmental applications.
At Carbon Nature, Prof. Genç serves as a Scientific Advisor, guiding the development of the AI-driven satellite data and GIS architecture. He oversees the design of geospatial algorithms for carbon sequestration monitoring, ensuring scientific accuracy in spatial modeling and data validation. His contribution ensures that Carbon Nature’s digital MRV (Measurement, Reporting & Verification) system achieves the highest standards of technical precision and scalability across multiple ecosystems.
Prof. Dr. Nilgün Ayman Öz
SCIENTIFIC advısor
Prof. Dr. Nilgün Ayman Öz is a distinguished academic in the field of Environmental Engineering, currently serving as a Professor and Sustainability Office Coordinator at Çanakkale Onsekiz Mart University. With over two decades of research and teaching experience, she has established herself as a leading authority in environmental biotechnology, biogas production, wastewater treatment, and carbon footprint assessment.
Her research has focused on developing innovative bioprocesses for carbon-neutral energy systems, including anaerobic digestion, microalgae cultivation, and biohydrogen production. She has coordinated and participated in multiple EU and TÜBİTAK-funded projects, bridging scientific research with practical environmental solutions.
Prof. Öz’s expertise extends to greenhouse gas (GHG) verification and sustainability certification, holding professional credentials as a Certified ISO 14064 Greenhouse Gas Verifier. She also plays a key role in developing institutional sustainability frameworks within higher education.
At Carbon Nature, she provides strategic oversight on climate policy alignment, carbon accounting methodologies, and sustainability impact metrics, ensuring that the company’s R&D activities comply with international climate frameworks (EU Green Deal, ISO 14064, and Verra methodologies). Her ability to integrate academic depth with applied environmental policy strengthens Carbon Nature’s position as a scientifically credible and sustainability-driven climate tech venture.
