Master Biochar Technology for Carbon Sequestration in 3 weeks through hands-on, project-based online training with DSTC.
Environmental Science & Sustainability
Module-by-module breakdown of Biochar Technology for Carbon Sequestration, from foundations to a certified capstone project.
Outline
Biochar vs charcoal vs compost: what makes biochar βclimate-relevant.β β’ Carbon sequestration logic: stability, residence time, and soil storage. β’ Co-benefits: soil fertility, water retention, waste management (overview). β’ Risks and misconceptions: when biochar is not a good idea.
Outline
Feedstock options: crop residues, forestry waste, manure, organic wastes (overview). β’ Moisture, ash, and contaminants: why feedstock quality matters. β’ Supply chain thinking: collection, preprocessing, transport, storage. β’ Safety and sourcing: avoiding treated wood and contaminated inputs.
Outline
Pyrolysis concept: heating biomass with limited oxygen. β’ Key parameters: temperature, residence time, heating rate (and why they matter). β’ Slow vs fast pyrolysis overview: char yield vs bio-oil/gas trade-offs. β’ System types: kilns to continuous reactors (overview) and operational basics.
Outline
Key properties: carbon content, volatile matter, ash, pH, surface area, porosity. β’ Stability indicators: what suggests long-term carbon storage potential. β’ Simple testing mindset: sampling, consistency, and reporting. β’ Quality variation: why two biochars are not the same product.
Outline
Soil structure benefits: aggregation, aeration, and moisture retention. β’ Nutrient interactions: cation exchange, retention, and fertilizer efficiency (overview). β’ Microbial habitat effects: rhizosphere and soil biology interactions (overview). β’ Water quality applications: adsorption potential and limitations (overview).
Outline
Application approaches: soil incorporation, top dressing, compost blending (overview). β’ Charging/activation concept: mixing with nutrients/compost to improve performance. β’ Dosage planning: why βmoreβ is not always better; context-driven rates. β’ Health & safety: dust control, handling, and community acceptance.
Outline
Potential risks: PAHs, heavy metals (from feedstock), pH imbalance (overview). β’ Monitoring and mitigation: sourcing controls and product testing discipline. β’ Trade-offs: land use, biomass competition, and transport emissions. β’ Best-practice checklist for responsible deployment.
e-Certificate and e-Marksheet issued on successful completion.