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  Iron Modified Orange Peel Biochar Achieves Over Ninety Percent Removal of Emerging Antibiotic Contaminants from Wastewater

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  Optimal Biochar Application Strategies Could Avoid up to Fifty Percent of Annual Nitrous Oxide Emissions from Chinese Croplands

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  Green-Synthesized Iron Nanoparticles Enhance Biochar Fertilizer Efficiency by Over Forty Percent to Reduce Global Greenhouse Gas Emissions

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  Highly Conductive Graphitized Biochar Increases Active Iron Generation by Nearly Nineteen Percent to Accelerate Antibiotic Degradation in Paddy Soils

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  Long-Term Biochar Application Increases Soil Available Potassium by up to Eighteen Percent and Boosts Maize Potassium Uptake by Forty-Three Percent

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  Sorghum Cultivar Biochar Reduces Carbon Dioxide Emissions by Over Two Hundred Percent Compared to Raw Plant Waste

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  Hierarchical Porous Biochar from Banana Straw Achieves a Surface Area Increase from Seven to Nine Hundred Sixty Square Meters per Gram

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  Biochar Application Within Optimal Thresholds Can Increase Soil Water-Holding Capacity by 14.3% and Reduce Greenhouse Gas Emissions by 31.5%

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  Novel Biochar Nanosphere Hybrids Achieve a Maximum Uranium Adsorption Capacity of 203.4 Milligrams per Gram to Support Seawater Extraction

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  Hyperaccumulating Plants Can Remove Over Ten Thousand Milligrams of Toxic Nickel per Kilogram of Dry Biomass to Clean Contaminated Soil