MICROALGAE BIOPOLYMERS: A REVIEW

Pedro Siqueira Zatta, Beatriz Jacob Furlan, Rafaela Mirabile, Rafael Silva Ribeiro Gonçalves, Paulo Alexandre Silveira da Silva, Dhyogo Miléo Taher, Gilvana Scoculi de Lira, L. Martins, J. Ordóñez, Jose Viriato Coelho Vargas
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Abstract

Algae are ubiquitous organisms whose capabilities have drawn much attention as of late in the bioengineering field due to their potential to enable a wide range of bioproducts. Microalgae are ideal organisms for the application of the biorefinery concept since they can be grown in wastewater and, at the same time, produce many products of commercial interest. These microorganisms are also known for their resilience to extreme environmental conditions and suitable cell growth rates. Beyond the known potential for biofuel production, these microorganisms can still produce other compounds, being lipids, pigments, vitamins, proteins, and polysaccharides, whose applications go from pharmaceutical to agricultural industries. Recently, the research focus has been directed to the biopolymer-producing ability of both micro- and macroalgae, as they can be rather varied and useful to many applications. However, this is still an ongoing research field, and new data are frequently added in the literature, notably on biomass processing, which can be done with the intent of use into dyes, bioplastics, paints, and even as biochar in solid fuel cells. Microalgae-based biopolymers can be used in a wide range of products, nevertheless, the resulting process efficiency and yields depend on the extraction process utilized, as well as on the microalgae species used and the culture conditions. Furthermore, the polymer extraction can be done directly with common solvents at atmospheric pressure or with other fluids, such as supercritical CO2 or subcritical solvents, and assisted by specific treatments, e.g., ultrasound and microwave. The residual biomass can still be used to produce other less valuable products, such as feedstock, and energy via combustion. In this sense, the present work aims to provide a state-of-the-art review on microalgae biopolymers. Issues related to the efficiency of current treatment methods, industrial applications, and environmental performance are presented and discussed. Besides, the perspectives in this area of knowledge are also a contribution of the present work, the extent to which scientific research is still under development.
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微藻生物聚合物研究进展
藻类是一种普遍存在的生物,其能力最近在生物工程领域引起了广泛的关注,因为它们具有广泛的生物产品的潜力。微藻是应用生物炼制概念的理想生物,因为它们可以在废水中生长,同时产生许多具有商业价值的产品。这些微生物也因其对极端环境条件的适应能力和合适的细胞生长速度而闻名。除了已知的生物燃料生产潜力之外,这些微生物还可以生产其他化合物,如脂质、色素、维生素、蛋白质和多糖,其应用范围从制药到农业工业。近年来,微藻和大型藻的生物聚合物生产能力已成为研究的重点,因为它们具有多种多样的用途。然而,这仍然是一个正在进行的研究领域,并且文献中经常添加新的数据,特别是关于生物质加工的数据,生物质加工可以用于染料,生物塑料,油漆,甚至固体燃料电池中的生物炭。基于微藻的生物聚合物可广泛用于各种产品,然而,由此产生的工艺效率和产量取决于所采用的提取工艺,以及所使用的微藻种类和培养条件。此外,聚合物的提取可以直接用常压下的普通溶剂或其他流体(如超临界CO2或亚临界溶剂)进行,并辅之以特殊处理,如超声波和微波。剩余的生物质仍然可以用来生产其他价值较低的产品,如原料和通过燃烧产生的能量。在这个意义上,本工作旨在提供最新的微藻生物聚合物的综述。提出并讨论了有关当前处理方法的效率、工业应用和环境性能的问题。此外,这一知识领域的观点也是当前工作的贡献,科学研究的程度仍在发展中。
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