• LinkedIn
  • X
  • Facebook
  • Instagram
  • Reddit
  • Spotify
  • RSS Feed
  • News
  • Blog
    • Ask Annie
    • Spill the Char
    • Expert Profiles
  • Videos
  • Use Cases
    • Agriculture
    • Horticulture
    • Livestock
    • Landscaping
    • Building Materials
    • Concrete / Asphalt
    • Reforestation
    • Soil Remediation
    • Water Treatment
    • Carbon Sequestration
  • The Biochar Show
  • Store
  • About
    • Partner Directory
    • Editorial Guidelines
    • Contact

water pollution

  • Low-Cost Algal Biochar Removes Over 95 Percent of Toxic Textile Dye

    Low-Cost Algal Biochar Removes Over 95 Percent of Toxic Textile Dye

  • 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

1 2 3 … 8
Next Page
  • LinkedIn
  • X
  • Facebook
  • Instagram
  • Reddit
  • Spotify
  • RSS Feed

GET THE NEWSLETTER

By clicking subscribe, you agree to share your email address with the site owner and Mailchimp to receive marketing, updates, and other emails from the site owner. Use the unsubscribe link in those emails to opt out at any time.

Processing…
Success! You're on the list.
Whoops! There was an error and we couldn't process your subscription. Please reload the page and try again.
  • Resources
  • Glossary
  • Partner Directory
  • About
  • Editorial Guidelines
  • Contact
  • Privacy Policy
  • Disclaimer


Loading Comments...