Bioremediation of Benzophenone by Glycosylation with Immobilized Marine Microalga Chrysocampanulla spinifera and Amphidinium crassum

K. Shimoda, Yushi Uchimura, Hiroya Imai, M. Kitagawa, H. Hirano, H. Hamada, H. Hamada
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引用次数: 1

Abstract

Reduction and glycosylation of benzophenone, which is an endocrine disrupting chemical, were investigated using immobilized marine microalga and plant cells from the viewpoint of bioremediation of benzophenone. Immobilized marine microalga of Chrysocampanulla spinifera reduced benzophenone to diphenylmethanol. Immobilized marine microalga of Amphidinium crassum glucosylated diphenylmethanol to the corresponding glucoside. The sequential biotransformation with C. spinifera and A. crassum effectively converted benzophenone into diphenylmethyl glucoside. On the other hand, immobilized plant cells of Catharanthus roseus transformed benzophenone to diphenylmethanol, diphenylmethyl glucoside, and diphenylmethyl primeveroside, which was a new compound, by one-step biotransformation.
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固定化海洋微藻金钟藻和沙蚌糖基化生物修复二苯甲酮
从生物修复的角度出发,利用固定化海洋微藻和植物细胞研究了内分泌干扰物二苯甲酮的还原和糖基化。固定化的海洋微藻将二苯甲酮还原为二苯甲醇。固定化的海洋微藻沙蚌将二苯甲醇葡萄糖化成相应的糖苷。与棘草和砂草的连续生物转化有效地将二苯甲酮转化为二苯基甲基葡萄糖苷。另一方面,固定化的玫瑰Catharanthus roseus植物细胞通过一步生物转化将二苯甲酮转化为新化合物二苯基甲醇、二苯基甲基葡萄糖苷和二苯基甲基primeveroside。
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Biochemistry Insights
Biochemistry Insights BIOCHEMISTRY & MOLECULAR BIOLOGY-
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