Biochar implications in cleaner agricultural production and environmental sustainability
文献信息
Subhash Babu, Raghavendra Singh, Sanjeev Kumar, Sanjay Singh Rathore, Devideen Yadav, Sanjay Kumar Yadav, Vivek Yadav, Meraj Alam Ansari, Anup Das, Gandhamanagenahalli Adireddy Rajanna, Owais Ali Wani, Rishi Raj, Dinesh Kumar Yadav, Vinod Kumar Singh
Achieving food security while mitigating climate change is the foremost challenge for researchers and policy planners globally. Thus, dual objective approaches/techniques need to be developed, which can potentially increase food production with zero/negative greenhouse gas (GHG) emissions. The global agricultural production system generates a huge amount of bio-waste, which threatens agricultural and environmental sustainability. However, conversion of agricultural waste into biochar can potentially address the food insecurity and climate change challenges concurrently. Biochar production and utilization is proposed as an innovative solution for achieving the Sustainable Development Goals (SDGs), such as zero hunger, poverty, and climate change mitigation, by enhancing farm productivity and reducing/offsetting anthropogenic CO2 emission. Globally, biochar has the potential to increase crop productivity by 11% and reduces 12% human-induced GHG emissions annually. Biochar can potentially sequester ∼0.7–1.8 Gt CO2 (C eq.) y−1 in the soil system. Furthermore, biochar application improves soil health, which facilitates the plant growth and crop productivity. Biochar application can alters the plant physiology and makes the plant system more tolerant against biotic and abiotic stresses. Biochar is also an excellent in situ-sorbent for soil contaminants. However, some inconsistent reports about the utility of biochar are also available. Hence, an in-depth understanding about the uses and impact of biochar on the food production, soil health, and climate change mitigation is highly warranted, for framing the research priorities and policies for developing cleaner and sustainable agricultural production systems.
期刊推荐

Ferroelectrics

Chemical & Pharmaceutical Bulletin

Cement and Concrete Research

Biopolymers

Journal of the American Chemical Society

Anti-Corrosion Methods and Materials

Chemistry of Natural Compounds

Bulletin of the Chemical Society of Japan

Accounts of Chemical Research

Journal of the Chinese Chemical Society
相关文献
Characterization of organic fluorophores for in vivo FRET studies based on electroporated molecules
A. Plochowietz, R. Crawford, A. N. Kapanidis
DOI: 10.1039/C4CP00995A
Describing the light intensity dependence of polymer:fullerene solar cells using an adapted Shockley diode model
L. H. Slooff, J. M. Kroon, W. Verhees, L. J. A. Koster, Y. Galagan
DOI: 10.1039/C3CP55293D
Micropore engineering of carbonized porous aromatic framework (PAF-1) for supercapacitors application
Yanqiang Li, Soumyajit Roy, Teng Ben, Shixian Xu, Shilun Qiu
DOI: 10.1039/C4CP00550C
Sodium uptake in cell construction and subsequent in operando electrode behaviour of Prussian blue analogues, Fe[Fe(CN)6]1−x·yH2O and FeCo(CN)6
James C. Pramudita, Siegbert Schmid, Thomas Godfrey, Thomas Whittle, Moshiul Alam, Tracey Hanley, Helen E. A. Brand, Neeraj Sharma
DOI: 10.1039/C4CP02676D
Understanding the photothermal heating effect in non-lamellar liquid crystalline systems, and the design of new mixed lipid systems for photothermal on-demand drug delivery
Wye-Khay Fong, Tracey L. Hanley, Benjamin Thierry, Adam Tilley, Nigel Kirby, Lynne J. Waddington
DOI: 10.1039/C4CP03635B
Specific features of the electronic structure of a novel ternary Tl3PbI5 optoelectronic material
I. V. Kityk, N. M. Denysyuk, O. Y. Khyzhun, S. I. Levkovets, O. V. Parasyuk, A. O. Fedorchuk, G. L. Myronchuk
DOI: 10.1039/C4CP00591K
Flue gas CO2 mineralization using thermally activated serpentine: from single- to double-step carbonation
Mischa Werner, Subrahmaniam Hariharan, Marco Mazzotti
DOI: 10.1039/C4CP02786H
Adsorption of PNIPAmx-PEO20-PPO70-PEO20-PNIPAmx pentablock terpolymer on gold surfaces: effects of concentration, temperature, block length, and surface properties
Tongquan Chen, Yanping Lu, Tianyou Chen, Xinghong Zhang, Binyang Du
DOI: 10.1039/C3CP54535K
The first tyrosyl radical intermediate formed in the S2–S3 transition of photosystem II
Marius Retegan, Nicholas Cox, Wolfgang Lubitz, Frank Neese, Dimitrios A. Pantazis
DOI: 10.1039/C4CP00696H
Coherency strain and its effect on ionic conductivity and diffusion in solid electrolytes – an improved model for nanocrystalline thin films and a review of experimental data
C. Korte, J. Keppner, A. Peters, N. Schichtel, H. Aydin, J. Janek
DOI: 10.1039/C4CP03055A
您可能还喜欢
4-[4-三氟甲基苯基]恶唑(CAS号:1126636-40-5)通常如何合成?
4-[4-三氟甲基苯基]恶唑通常通过将4-三氟甲基苯酚与异硫氰酸苯酯在有机溶剂中进行酯化反应合成。该反应可在无水条件下,使用适当的催化剂,如四丁基氢氧化铵,以提...
RockPhos Pd G3(CAS号:2009020-38-4)通常如何合成?
RockPhos Pd G3 通常通过钯催化偶联反应合成,使用配体 (2'-Amino-2-biphenylyl)(methanesulfonato-kappa...
1-哌啶甲酰胺(CAS号:2158-03-4)的市场或研究趋势如何?
1-哌啶甲酰胺作为有机合成中的重要中间体,其市场需求主要受医药、农药、染料等行业推动。近年来,随着新药开发和绿色化学的发展,该化合物的研究趋势集中在开发更高效、...
2-(二苯基膦基)乙胺(CAS号:4848-43-5)适用哪些法规指南?
2-(二苯基膦基)乙胺适用于多种法规指南,包括但不限于《全球化学品统一分类和标签制度》(GHS),欧盟《化学品注册、评估、授权和限制》法规(REACH),以及美...
如何储存间苯二甲酸二烯丙酯(CAS号:1087-21-4)?
间苯二甲酸二烯丙酯应储存在阴凉、干燥、通风良好的地方,远离火源和热源。储存容器应密封,避免光照和高温。储存温度应控制在25℃以下,相对湿度应低于80%。避免与其...
什么是间甲苯异硫代异氰酸酯(CAS号:621-30-7)?
间甲苯异硫代异氰酸酯是一种有机化合物,分子式为C7H7NO2S,具有刺激性气味。它是一种重要的有机合成中间体,在合成其他化合物时广泛应用。
在合成中是否有N-Boc-D-苯丙氨醇(CAS号:106454-69-7)的替代品?
在合成中,可以考虑使用N-Cbz-D-苯丙氨醇或N-Fmoc-D-苯丙氨醇作为替代品。这些化合物同样具有保护氨基的功能,且在合成过程中表现出良好的反应性能。
3-羟甲基-2-氧异丙基吡啶(CAS号:954240-50-7)的主要用途是什么?
3-羟甲基-2-氧异丙基吡啶主要用于有机合成领域,可以作为合成其他药物、农药或精细化学品的中间体。此外,它还可能在实验室研究中作为特定反应的前体或溶剂。
6-氨基-9-甲基嘌呤(CAS号:700-00-5)应用于哪些行业?
6-氨基-9-甲基嘌呤目前主要应用于医药行业,作为某些药物的中间体。此外,它还可能用于聚合物、传感器和半导体的某些领域,作为功能性单体或掺杂剂。





