Researchers found that converting degraded pasture to oil palm plantations reduces stored carbon loss associated with rainforest clearing, but can lead to initial soil organic carbon loss. However, the carbon is later redistributed within the soil, resulting in long-term recovery of topsoil organic carbon.
At low concentrations, carbon monoxide has a beneficial effect by interacting with signaling proteins, suppressing inflammation and protecting tissues from oxidative stress. Researchers are exploring safe and effective delivery methods to harness its therapeutic potential for diseases such as sepsis and cancer.
A study reveals a decline in forest carbon storage time, hindering forests' ability to absorb and re-emit carbon. Forests are crucial for regulating atmospheric carbon dioxide concentrations, and increased tree mortality is contributing to this decline.
A NASA-funded study reveals that winter carbon dioxide loss from the Arctic permafrost region could increase by 41% over the next century if greenhouse gas emissions continue at their current pace. This would mark a stark reversal for the Arctic, which has captured and stored carbon for tens of thousands of years.
Research reveals oceanic black carbon differs significantly from riverine dissolved black carbon, raising fundamental questions about its origin and fate. The new technique uses stable carbon isotope analysis to track terrestrial sources of black carbon in the ocean.
A new study reveals that intact tropical forests have a significantly higher carbon impact than previously thought, with losses between 2000 and 2013 resulting in a 626% increase. This translates to two years' worth of global land-use change emissions and underscores the urgent need for conservation.
A Stanford University study published in Energy and Environmental Science suggests that carbon capture technologies can cause more harm than good, reducing only a small fraction of carbon emissions. The research concludes that using renewable energy options like wind or solar is always better from a social cost perspective.
A new study reveals that northern peatlands store 1.1 trillion tons of carbon, more than humans have emitted to the atmosphere through fossil fuels. The findings suggest that these boggy areas play a crucial role in the carbon cycle and climate change.
Researchers from RUDN University found that the rate of organic carbon accumulation in wild, cultivated, and abandoned soils depends mainly on soil type and composition. The study revealed that phaeozems release carbon easily, while chernozems contain more decomposition-resistant compounds.
A Dartmouth-led study reveals that actively managed mixed wood forests in New Hampshire have significant carbon stores, both above and below ground. The research found that the forests' soil carbon is higher in subplots with more trees, especially fir and spruce species.
UIC researchers have successfully developed a fully rechargeable prototype of a lithium-carbon dioxide battery, demonstrating its potential for advanced energy storage systems. The battery's efficiency and long-lasting cycle life are significantly improved due to the use of new materials and a hybrid electrolyte.
Researchers investigated carbon partitioning between iron liquid and silicate melt under high-pressure conditions using a boron nitride capsule. The new experimental result shows that the partition coefficient of carbon is several times lower than previous studies, suggesting that carbon in a magma ocean may not have been as depleted.
A team of physicists and engineers measured the tensile strengths of individual structure-defined single-walled carbon nanotubes, finding that their strength depends on both the chiral angle and diameter. The study provides a fundamental insight into developing super-strong and ultra-lightweight materials.
A new study by Imperial College London researchers shows that carbon taxes are insufficient to reduce emissions enough to meet the Paris Agreement targets. The study recommends incentivizing strategies that remove CO2 from the atmosphere alongside carbon taxes.
Scientists have found that rising carbon dioxide concentration in the air enhances land carbon sink, a process known as carbon dioxide fertilization. For every 100-ppm increase in CO2, terrestrial carbon sink increases by 0.64 billion tons of carbon per year globally.
Research reveals that horizontal and vertical circulation of carbon-rich ocean water in the subpolar Southern Ocean work together to control carbon storage and release. The study found that large gyres, such as the Weddell Gyre, play a key role in transporting carbon-containing phytoplankton out of the region.
Researchers developed a new process to form high-value chemicals called amides by coupling carbon and nitrogen bonds in an electrochemical reaction. This breakthrough enables the production of useful substances in various industries, including pharmaceuticals.
A recent study found that water availability in soil determines the direction of carbon-climate feedback, with land carbon uptake increasing below optimal moisture levels and decreasing above them. This discovery provides new insights into the complex relationships between climate change, ecosystem dynamics, and water availability.
Research finds that older stands of trees protect legacy carbon from burning, while younger stands do not. This shift could change boreal forests from a carbon sink to a source, exacerbating climate change. The study's findings have global implications for future climate scenarios.
A new study found that frequent and large wildfires are releasing stored carbon in boreal forests, transforming them into a source of carbon instead of a sink. This shift has significant implications for global climate change and greenhouse gas levels.
A world-leading team reveals ice sheets are no longer passive parts of the Earth's carbon cycle, but reactors that process rock and boost nutrient release. Ice sheets store vast amounts of organic carbon, fuel marine food webs, and influence global carbon sinks.
Researchers found that adding compost and cover crops to organic-certified systems increased soil carbon content by 12.6% over a 19-year period, outperforming the international '4 per 1000' initiative. This approach stores more carbon than previously calculated, highlighting the importance of balancing diet for microorganisms in soils.
A study by the USDA Forest Service and Purdue University finds that non-native invasive insects and diseases are reducing the amount of carbon stored in trees across the United States. The study estimates that 41% of live forest biomass is threatened, with certain species like emerald ash borer and gypsy moth causing significant damage.
A new study led by Virginia Commonwealth University researchers reveals that structurally complex forests in the eastern US outperform simpler ones in carbon sequestration. The discovery suggests that a forest's arrangement of vegetation is a key factor in its ability to absorb and store carbon.
Research suggests that wildfires can effectively 'lock away' carbon for years to come through the production of pyrogenic carbon, or charcoal. This process helps compensate for carbon emissions from fires and could provide a significant buffer against future climate change.
A recent study found that seaweed can travel up to 5000 kilometers beyond coastal areas and sequester significant amounts of carbon. This discovery has significant implications for the global carbon budget and highlights the importance of macroalgae in blue carbon assessments.
Researchers at Michigan State University discovered a new mechanism determining how carbon is stored in soils, which could improve climate resilience and reduce carbon footprints. Soils from ecosystems with higher plant diversity have more pores of the right size for stable carbon storage.
Researchers at Shinshu University have developed a method to improve the properties of activated carbon using high magnetic fields. By applying a magnetic field of 10T during production, they increased the micropore capacity of activated carbon by 35%, making it more effective for air and water purification.
Researchers at Karlsruhe Institute of Technology (KIT) have developed a method to directly synthesize graphene from greenhouse gas carbon dioxide. The process involves a catalytically active metal surface, resulting in a simple one-step conversion. This breakthrough could lead to the production of valuable materials and contribute to r...
Researchers argue that policymakers should use disturbance ecology to stabilize forest carbon and account for risks in climate change mitigation policies. This approach aims to balance immediate loss with long-term storage, promoting forest carbon sequestration.
Seaweed is found to trap significant amounts of carbon dioxide, with approximately 8.75 grams per square meter of sediment each year. This process contributes to the ocean's 'blue carbon' storage, which helps mitigate climate change.
International study finds that as temperatures rise, trees grow faster but die younger, reducing the amount of carbon they store. This phenomenon has significant implications for global carbon cycle dynamics.
Researchers used radiocarbon dating to track carbon release from thawing permafrost in Siberian-Arctic rivers. The study found that permafrost and peat carbon contributed significantly to dissolved organic carbon in the rivers, with seasonal differences suggesting gradual thaw of surface permafrost as the main source.
A recent study reveals that around 17% of total organic carbon in Siberian rivers originates from thawing permafrost and peat deposits. The research found that particulate organic carbon contributed to more than half of the river's total organic content.
Researchers use carbon nanotube nanoreactors to produce and stabilize metastable silver iodide structures, including rock-salt and helix phases, at ambient conditions. The synthesis provides a new path to the creation of extreme structures.
A new paper outlines critical mechanisms involved in the ocean carbon cycle, specifically the biological pump. Researchers found that particle injection pumps are a more efficient way of pulling carbon from the surface into the deep waters.
Researchers measured high CO2 concentrations in air blowing out to sea from cities and agricultural areas, including Silicon Valley. This process could add 25 million tons of CO2 to the ocean annually, affecting acidity.
Researchers have identified a new pathway for ocean carbon storage, known as particle injection pumps (PIPs), which move just as much carbon as the biological gravitational pump. The study, published in Nature, provides a breakthrough solution to understanding how carbon reaches the deep ocean and its impact on the global climate.
Researchers aim to refine understanding of how carbon moves in the ocean by studying lesser-known mechanisms such as particle injection pumps. These processes, including vertical migration and subduction, are thought to sequester significant amounts of carbon, rivaling the biological gravitational pump.
A new study finds that shoreline erosion can transform freshwater wetlands from carbon-storage pools to carbon sources, with a large mismatch between accumulation and erosion rates. The researchers developed a model to assess the impact of freshwater coastal erosion on global carbon budgets.
A new study found that grasslands increase in vegetation biomass when exposed to elevated carbon dioxide levels, especially during rainy periods. This suggests that seasonal precipitation plays a crucial role in determining the impact of CO2 on plant growth.
Coastal wetlands worldwide store more carbon than forests and can double their capacity when faced with rising seas. The study found that carbon concentrations in top soil layers increased by 2-4 times, while deeper layers saw a 5-9 times increase.
Negative-emission technologies (NETs) that capture carbon dioxide from the air could address about 30% of needed reductions in carbon-dioxide emissions. Scientists estimate that NETs face challenges on cost-effectiveness and disposal methods.
Researchers have developed a new technique that can efficiently convert CO2 from gas into solid particles of carbon at room temperature. This breakthrough could transform our approach to carbon capture and storage, offering a more sustainable alternative to current technologies.
A new study reveals that peatlands have been a significant carbon sink over the past 130,000 years, storing carbon in their deposits and potentially slowing down climate change. The research, published in PNAS, fills a key knowledge gap about the global extent of peatlands and their role in the carbon cycle.
Research at the University of Birmingham reveals that young forests are a substantial contributor to the world's carbon sink, accounting for around 25% of total carbon dioxide absorption. These forests, typically in temperate zones, have been re-growing on land with previously experienced human activities.
Artificial leaves have been designed to mimic photosynthesis and convert carbon dioxide into fuel, with a proposed design using semi-permeable membranes to collect CO2 from the air. The system could produce significant amounts of carbon monoxide for synthetic fuels and reduce atmospheric CO2 levels by 10% within 100 meters.
Researchers found that many Arctic lakes are self-contained units with low carbon emissions, contradicting previous assumptions about the region's role in global carbon cycles. The study's findings suggest that these lakes may not be significant contributors to greenhouse gas emissions, at least for now.
Researchers estimate carbon emissions from farmland reclamation in China over the past 300 years, with vegetation emissions ranging from 1.58 Pg and soil emissions from 1.35 to 4.03 Pg. Carbon emissions vary greatly across ecosystems, with forests releasing the most and deserts acting as carbon sinks.
For the first time, researchers have created carbon fibers with uniform pores, enabling greater surface area and improved energy storage. This breakthrough, achieved using block copolymers, opens up new possibilities for designing functional materials.
A global carbon tax could reduce greenhouse gas emissions efficiently, according to a survey of people in the US, India, UK, South Africa, and Australia. The majority of respondents supported carbon taxes if revenues were returned to citizens or spent on climate projects.
Researchers found that soil minerals can store a significant amount of carbon, which could be exploited as the world shifts its carbon economy. Wetter climates facilitate mineral formation, allowing more carbon to be stored.
Scientists will investigate soil carbon formation, stabilization, and loss with a £1.8 million grant from the Natural Environment Research Council. The study aims to quantify increases in soil carbon storage that can mitigate climate change and improve global food security.
Leading scientists propose eight steps to boost global soil organic carbon stocks, mitigate climate change and improve agricultural productivity. The KJWA aims to formalize these measures through coordination and financing.
Climate researchers warn that peatlands in the Peruvian Amazon may lose up to 500 million tons of carbon by the end of the century due to warmer temperatures and increased precipitation. This loss could lead to a significant increase in global carbon emissions, exacerbating climate change.
A recent study by Michigan State University found that floods significantly transport large amounts of organic carbon through ecosystems, contrary to the traditional view of the carbon cycle as vertical. The research analyzed over 1,000 watersheds across the US and found that wetlands play a crucial role in storing and releasing carbon.
Researchers found that streamside forests store an average of 168-390 tons of carbon per acre in mature trees, while soil carbon can triple with restoration. Actively restoring forests jump-starts the process, gaining more than twice the rate of naturally regenerating forests over the first ten years.
A NUS study found that mangroves can capture more carbon than tropical rainforests, making them a key solution to reduce fossil fuel emissions. Coastal ecosystems like mangroves can store organic carbon in water-saturated soil, effectively mitigating climate change.
A recent study reveals that eelgrass meadows store significant amounts of organic carbon, comparable to tropical seagrass species and mangroves. The distribution area of these meadows has decreased by at least 1/3rd over the past 50 years, highlighting the urgent need for conservation efforts.
Researchers at MIT have developed a self-healing material that can grow, strengthen and repair itself by reacting with carbon dioxide from the air. The material, made from a polymer and chloroplasts, becomes stronger as it incorporates the carbon.