This paper presents a novel method for the transformation of waste crystalline silicon, including waste polysilicon (photovoltaic industry), single crystal silicon (waste chip), and activated carbon (AC) into submicro β-SiC in timescales of minutes using a multimode microwave rotary tube reactor under open-air conditions.
The combination of Cp*IrX2(NHC) – catalysed HTID of 1,3-PDO in ionic liquids with bio-catalysis has then, ultimately, the potential to allow the transformation of waste glycerol into valuable chemicals that can be simply isolated.
The transformation of waste glycerol to GlyC has been achieved taking the advantage of dimethyl carbonate (DMC) reaction with glycerol catalyzed by heterogeneous lipase biocatalyst under solvent-free conditions.
The study suggested that the vermicomposting is significantly effective in nutrient transformation in waste mixture.
Such a study will therefore entail the transformation of waste into value-added products, thus addressing both the environmental pollution and inefficient utilization of resources.
The primary goal of this journal is to gather and disseminate the research and experiences on the transformation of waste and biomass to energy, fuels, and other useful materials (valorization), with particular focus on environmental quality and sustainability goals.
If bureaucracies could engage in transformation, unnecessary waste could be dealt with and overall expenses would be reduced.
One possible strategy involves the transformation of waste materials and/or co-products, such as whey, crop residues, crude glycerol, or crude fats, into triglycerides or fatty acids using microbial cell factories [ 3, 4].
There is tremendous scope and potential for the use of micro-organisms towards meeting the growing world demand for food, through efficient utilisation of available natural food and feed stocks and the transformation of waste materials.
The degree of transformation of wastes within the bales can determine the method to treat MSW after their storage.
