Miazek Krystian, Iwanek Waldemar, Remacle Claire, Richel Aurore, Goffin Dorothee
AgricultureIsLife Platform, University of Liege-Gembloux Agro-Bio Tech, Passage des Déportés 2, Gembloux B-5030, Belgium.
Faculty of Mathematics and Natural Sciences, the Jan Kochanowski University in Kielce, Swietokrzyska 15, Kielce 25-406, Poland.
Int J Mol Sci. 2015 Oct 9;16(10):23929-69. doi: 10.3390/ijms161023929.
Microalgae are a source of numerous compounds that can be used in many branches of industry. Synthesis of such compounds in microalgal cells can be amplified under stress conditions. Exposure to various metals can be one of methods applied to induce cell stress and synthesis of target products in microalgae cultures. In this review, the potential of producing diverse biocompounds (pigments, lipids, exopolymers, peptides, phytohormones, arsenoorganics, nanoparticles) from microalgae cultures upon exposure to various metals, is evaluated. Additionally, different methods to alter microalgae response towards metals and metal stress are described. Finally, possibilities to sustain high growth rates and productivity of microalgal cultures in the presence of metals are discussed.
微藻是许多化合物的来源,这些化合物可用于多个工业领域。在应激条件下,微藻细胞中此类化合物的合成可得到增强。接触各种金属可能是用于诱导微藻培养物中的细胞应激和目标产物合成的方法之一。在本综述中,评估了微藻培养物在接触各种金属后产生多种生物化合物(色素、脂质、胞外聚合物、肽、植物激素、有机砷化合物、纳米颗粒)的潜力。此外,还描述了改变微藻对金属和金属应激反应的不同方法。最后,讨论了在存在金属的情况下维持微藻培养物高生长速率和生产力的可能性。