Carbon Management · 2013 · 366 citations · 78 references
AgricultureAgronomySoil SciencesSoil BiogeochemistrySoil ChemistrySoil MicrobiologyFertilizer SourcesNanocompositesNutrient MineralizationRhizosphere BiogeochemistryBiochar AmendmentsBiochar StabilizationFree Radical ScavengingMetal Ion ChelationMicrobial Community ResponsesMicrobial Nutrient CyclingMineral ChelationSoil Microbial Responses
Many biochars have a complex carbon lattice structure with aromatic and aliphatic domains, acidic and basic groups, vacancies, metallic and non-metallic elements, and free radicals. Biochars also have separate mineral oxide, silicate and salt phases, and small and large organic molecules. In the rhizosphere, such constituents can be involved in chemical and biological processes along a soil–microbe–plant continuum, including nutrient cycling, metal chelation and stabilization, redox reactions, and free radical scavenging. It is hypothesized that the greater the amount of these nanoparticles and dissolved components, the greater will be plant and microbial responses. We provide suggestions for developing low-dose, high-efficiency biochar–nanoparticle composites, as well as initial field trial results and detailed characterization of such a biochar–fertilizer composite, to highlight the potential of such biochars.
78
Handbook of X-Ray Photoelectron Spectroscopy
J. F. Moulder · Medical Entomology and Zoology · 1995 · 23.7K citations
Characteristics of hemicellulose, cellulose and lignin pyrolysis
Haiping Yang, Rong Yan, Hanping Chen et al. · Fuel · 2007 · 7.8K citations
Sustainable biochar to mitigate global climate change
Dominic Woolf, James E. Amonette, F. Alayne Street‐Perrott et al. · Nature Communications · 2010 · 2.6K citations · Full text