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water pollution

  • Biochar Composite Achieves 92 Percent Efficiency in Removing Toxic Food Dye from Wastewater

    Biochar Composite Achieves 92 Percent Efficiency in Removing Toxic Food Dye from Wastewater

  • Iron-Infused Biochar Cuts Nitrate Leaching by 71.31%, Boosts Ammonium Retention 53.12%

    Iron-Infused Biochar Cuts Nitrate Leaching by 71.31%, Boosts Ammonium Retention 53.12%

  • Biochar-Fertilizer Mix Cuts Phosphorus Leaching by Over 83%

    Biochar-Fertilizer Mix Cuts Phosphorus Leaching by Over 83%

  • Modified Biochar Achieves 95% Dye Removal, Offers Reusable Solution to Wastewater Pollution

    Modified Biochar Achieves 95% Dye Removal, Offers Reusable Solution to Wastewater Pollution

  • Forests and Farming: How can Biochar’s Co-Benefits be Leveraged to Reprioritize UK Timber Production and Agriculture

    Forests and Farming: How can Biochar’s Co-Benefits be Leveraged to Reprioritize UK Timber Production and Agriculture

  • Biochar Amendment Delays Pollutant Breakthrough by 12 to 40 Times in Alluvial Soil Systems

    Biochar Amendment Delays Pollutant Breakthrough by 12 to 40 Times in Alluvial Soil Systems

  • New Biochar from Plane Tree Bark Achieves 93% Phosphate Removal, Paving the Way for Nutrient Recovery

    New Biochar from Plane Tree Bark Achieves 93% Phosphate Removal, Paving the Way for Nutrient Recovery

  • Bamboo Biochar Sensor Detects Flufenamic Acid at an Ultralow Limit of 1.3 nmol L⁻¹

    Bamboo Biochar Sensor Detects Flufenamic Acid at an Ultralow Limit of 1.3 nmol L⁻¹

  • Optimized Biochar from Tea Waste Achieves 82.66% Pollutant Removal, With RNN Model Predicting Performance at an R2 of 0.960

    Optimized Biochar from Tea Waste Achieves 82.66% Pollutant Removal, With RNN Model Predicting Performance at an R2 of 0.960

  • XGBoost Algorithm Achieves 97.4% Accuracy in Predicting Organic Material Adsorption on Biochar

    XGBoost Algorithm Achieves 97.4% Accuracy in Predicting Organic Material Adsorption on Biochar

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