Plant starch extraction, modification, and green applications: a review
Fossil fuel-based products should be replaced by products derived from modern biomass such as plant starch, in the context of the future circular economy. Starch production globally surpasses 50 million tons annually, predominantly sourced from maize, rice, and potatoes. Here, we review plant starch...
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Veröffentlicht in: | Environmental chemistry letters 2024-10, Vol.22 (5), p.2483-2530 |
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description | Fossil fuel-based products should be replaced by products derived from modern biomass such as plant starch, in the context of the future circular economy. Starch production globally surpasses 50 million tons annually, predominantly sourced from maize, rice, and potatoes. Here, we review plant starch with an emphasis on structure and properties, extraction, modification, and green applications. Modification techniques comprise physical, enzymatic, and genetic methods. Applications include stabilization of food, replacement of meat, three-dimensional food printing, prebiotics, encapsulation, bioplastics, edible films, textiles, and wood adhesives. Starch from maize, potatoes, and cassava shows amylose content ranging from 20 to 30% in regular varieties to 70% in high-amylose varieties. Extraction by traditional wet milling achieves starch purity up to 99.5%, while enzymatic methods maintain higher structural integrity, which is crucial for pharmaceutical applications. Enzymatic extraction improves starch yield by of up to 20%, reduces energy consumption by about 30%, and lowers wastewater production by up to 50%, compared to conventional methods. Sustainable starch modification can reduce the carbon footprint of starch production by up to 40%. Modified starches contribute to approximately 70% of the food texturizers market. The market of starch in plant-based meat alternatives has grown by over 30% in the past five years. Similarly, the use of biodegradable starch-based plastics by the bioplastic industry is growing over 20% annually, driven by the demand for sustainable packaging.Kindly check and confirm the layout of Table 1.Layout is right |
doi_str_mv | 10.1007/s10311-024-01753-z |
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Starch production globally surpasses 50 million tons annually, predominantly sourced from maize, rice, and potatoes. Here, we review plant starch with an emphasis on structure and properties, extraction, modification, and green applications. Modification techniques comprise physical, enzymatic, and genetic methods. Applications include stabilization of food, replacement of meat, three-dimensional food printing, prebiotics, encapsulation, bioplastics, edible films, textiles, and wood adhesives. Starch from maize, potatoes, and cassava shows amylose content ranging from 20 to 30% in regular varieties to 70% in high-amylose varieties. Extraction by traditional wet milling achieves starch purity up to 99.5%, while enzymatic methods maintain higher structural integrity, which is crucial for pharmaceutical applications. Enzymatic extraction improves starch yield by of up to 20%, reduces energy consumption by about 30%, and lowers wastewater production by up to 50%, compared to conventional methods. Sustainable starch modification can reduce the carbon footprint of starch production by up to 40%. Modified starches contribute to approximately 70% of the food texturizers market. The market of starch in plant-based meat alternatives has grown by over 30% in the past five years. Similarly, the use of biodegradable starch-based plastics by the bioplastic industry is growing over 20% annually, driven by the demand for sustainable packaging.Kindly check and confirm the layout of Table 1.Layout is right</description><identifier>ISSN: 1610-3653</identifier><identifier>EISSN: 1610-3661</identifier><identifier>DOI: 10.1007/s10311-024-01753-z</identifier><language>eng</language><publisher>Cham: Springer International Publishing</publisher><subject>Alternative energy sources ; Amylose ; Analytical Chemistry ; biodegradability ; Biodegradation ; biomass ; Bioplastics ; Carbon footprint ; Cassava ; Circular economy ; Corn ; Earth and Environmental Science ; Ecotoxicology ; encapsulation ; energy ; Energy consumption ; Environment ; Environmental Chemistry ; Food ; Food plants ; Foods ; Fossil fuels ; Geochemistry ; industry ; Layouts ; markets ; Meat ; Plant extracts ; Plant-based foods ; Plants ; Pollution ; Potatoes ; Prebiotics ; Review Article ; rice ; Starch ; Starches ; Structural integrity ; Sustainability ; Sustainable packaging ; Texturizers ; Wastewater ; Wet milling ; wood</subject><ispartof>Environmental chemistry letters, 2024-10, Vol.22 (5), p.2483-2530</ispartof><rights>The Author(s) 2024</rights><rights>The Author(s) 2024. 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Starch production globally surpasses 50 million tons annually, predominantly sourced from maize, rice, and potatoes. Here, we review plant starch with an emphasis on structure and properties, extraction, modification, and green applications. Modification techniques comprise physical, enzymatic, and genetic methods. Applications include stabilization of food, replacement of meat, three-dimensional food printing, prebiotics, encapsulation, bioplastics, edible films, textiles, and wood adhesives. Starch from maize, potatoes, and cassava shows amylose content ranging from 20 to 30% in regular varieties to 70% in high-amylose varieties. Extraction by traditional wet milling achieves starch purity up to 99.5%, while enzymatic methods maintain higher structural integrity, which is crucial for pharmaceutical applications. Enzymatic extraction improves starch yield by of up to 20%, reduces energy consumption by about 30%, and lowers wastewater production by up to 50%, compared to conventional methods. Sustainable starch modification can reduce the carbon footprint of starch production by up to 40%. Modified starches contribute to approximately 70% of the food texturizers market. The market of starch in plant-based meat alternatives has grown by over 30% in the past five years. 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subjects | Alternative energy sources Amylose Analytical Chemistry biodegradability Biodegradation biomass Bioplastics Carbon footprint Cassava Circular economy Corn Earth and Environmental Science Ecotoxicology encapsulation energy Energy consumption Environment Environmental Chemistry Food Food plants Foods Fossil fuels Geochemistry industry Layouts markets Meat Plant extracts Plant-based foods Plants Pollution Potatoes Prebiotics Review Article rice Starch Starches Structural integrity Sustainability Sustainable packaging Texturizers Wastewater Wet milling wood |
title | Plant starch extraction, modification, and green applications: a review |
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