Enzymes in the Valorization of Waste: Enzymatic Hydrolysis of Waste for Development of Value-added Products
Enzymes in the Valorization of Waste: Enzymatic Hydrolysis of Waste for Development of Value-added Products
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- More about Enzymes in the Valorization of Waste: Enzymatic Hydrolysis of Waste for Development of Value-added Products
Enzymatic hydrolysis is a promising technology for converting waste into value-added products. Hydrolysing enzymes play a crucial role in the breakdown and transformation of biomass. Auxiliary enzymes (LPMOs) can enhance the hydrolysis potential of enzymes. Recent developments in enzymatic-assisted hydrolysis of waste for conversion of waste to value-added products are discussed. Various products that can be generated from enzymatic hydrolysis of waste, such as bioethanol, biogas, and organic acids, are explored. The limitations and advantages of enzyme-based hydrolysis are discussed, and possible strategies for moving from laboratory to large-scale industries are proposed.
Format: Hardback
Length: 250 pages
Publication date: 19 December 2022
Publisher: Taylor & Francis Ltd
Biomass hydrolysis is a crucial process in the conversion of renewable biomass resources into valuable products. Hydrolyzing enzymes play a vital role in this process by breaking down the complex structural components of biomass, such as cellulose and lignin, into simpler sugars that can be further converted into various biofuels and bioproducts.
One area of interest in biomass hydrolysis is the use of auxiliary enzymes, also known as lipoprotein-metalloenzyme complexes (LPMOs). These enzymes have been shown to enhance the hydrolysis potential of hydrolyzing enzymes, leading to more efficient conversion of biomass into valuable products.
Recent developments in the field of enzymatic-assisted hydrolysis of waste have also gained significant attention. By employing enzymes to break down waste materials, such as plastic, paper, and food waste, it is possible to convert these waste into value-added products. This not only reduces the amount of waste that ends up in landfills but also provides a potential source of renewable energy and raw materials.
Enzymatic hydrolysis of waste has the potential to generate a wide range of products. These products can include biofuels such as ethanol, biodiesel, and biogas, as well as biochemicals such as amino acids, organic acids, and sugars. Additionally, enzymes can be used to produce value-added products such as textiles, paper, and packaging materials.
However, there are also limitations and advantages to enzyme-based hydrolysis. One of the limitations is the high cost of enzymes, which can make the process economically challenging for large-scale industries. Additionally, the process requires careful control of pH, temperature, and other environmental factors to optimize the conversion of biomass into valuable products.
To move from laboratory-scale to large-scale industries, it is important to develop effective strategies for enzyme production, optimization, and cost-effective utilization. This may involve the use of genetic engineering techniques to improve enzyme stability and activity, as well as the development of integrated biorefinery systems that combine enzymatic hydrolysis with other processes such as fermentation and distillation.
In conclusion, biomass hydrolysis is a critical process for converting renewable biomass resources into valuable products. Hydrolyzing enzymes play a vital role in this process, and the use of auxiliary enzymes, such as LPMOs, has the potential to enhance the hydrolysis potential and efficiency of biomass conversion. Recent developments in the field of enzymatic-assisted hydrolysis of waste have also shown great promise for reducing waste and generating renewable energy and raw materials. However, there are still challenges to be addressed, such as the high cost of enzymes and the need for effective strategies for moving from laboratory to large-scale industries. By continuing to research and develop in this field, it is possible to unlock the full potential of enzymatic hydrolysis and contribute to a more sustainable and environmentally friendly future.
Weight: 660g
Dimension: 234 x 156 (mm)
ISBN-13: 9781032035093
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