A Review About Preparation and Properties of Biochar and Application Fields in the Environment
Engineering and Technology Journal,
2021, Volume 39, Issue 12, Pages 1894-1904
AbstractBiomass’ pyrolysis process is responsible for producing the biochar charcoal, this process does not incorporate the oxygen, and it is utilized as a soil enhancer for each one of the carbon sequestration, and soil health prospects. Biochar can be defined as a stabilized solid which is enriched with carbon and could remain in the soil for extended period of time. Biochar has been studied as a way of carbon sequestration, and it might be a way used for handling climate change and global warming. It happens due to the processes that are associated with pyrogenic carbon capturing and storages. This review is focused on an overview of biochar preparation and application in the environment, previous studies and Applications. Biochar is prepared from various organic materials such as miscanthus, switch grass, corn stover, and sugarcane bagasse. The method of preparation varies with different temperatures and the discharge of nitrogen gas used for a period of one hour not to mention thermal decomposition at different temperatures of heat (500, 600, 700 and 800oC). The success of its use as a adsorbent material, and in treating the soil from heavy metals, its suitability for agriculture, and the treatment of the liquid leachate from solid waste down into the groundwater, in addition to the treatment of groundwater when the topography of the region differs.
- Review the different sources for preparing biochar.
- Explanation of methods of preparation under different pyrolysis conditions.
- Suitable for use as a soil treatment, and successful as an active permeable barrier to keep groundwater from pollutants.
- The use of biochar for processing complies with the principles of sustainable development because it adopts the use of waste and recycling for its manufacture as an effective excellent in the treatment process and thus is environmentally safe and cost-effective.
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