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一种用于优化海鞘相关RSK CAS9产碱性脂肪酶的统计方法。

A statistical approach for optimization of alkaline lipase production by ascidian associated- RSK CAS9.

作者信息

Sathishkumar Ramamoorthy, Ananthan Gnanakkan, Iyappan Kathirvel, Stalin Chinnathambi

机构信息

Centre of Advanced Study in Marine Biology, Faculty of Marine Sciences, Annamalai University, Parangipettai 608 502, Tamil Nadu, India.

出版信息

Biotechnol Rep (Amst). 2015 Sep 16;8:64-71. doi: 10.1016/j.btre.2015.09.002. eCollection 2015 Dec.

Abstract

A marine ascidian-associated bacterium, RSK CAS9, was optimized for lipase production by response surface methodology using marine waste as substrate. The central composite design was employed, and the optimal medium constituents for maximum lipase production (1355.81 U/ml) were determined to be tuna powder (14.58 g/l), olive oil (5.05 ml/l); NaCl (72.42 g/l), temperature (45 °C) and pH 9.0. An alkaline lipase was purified to 8.46 fold with 1193.59 U mg specific activities with the molecular weight of 44 kDa. The activity was substantially inhibited by EDTA and PMSF, indicating that it was a metalloenzyme serine residue which was essential for catalytic activity. Thus, lipase production by microbial conversion of marine fish wastes in this study suggested its potential utilization for the production of high value products.

摘要

一株与海鞘相关的海洋细菌RSK CAS9,采用响应面法以海洋废弃物为底物对其脂肪酶生产进行了优化。采用中心复合设计,确定了最大脂肪酶产量(1355.81 U/ml)的最佳培养基成分,即金枪鱼粉(14.58 g/l)、橄榄油(5.05 ml/l)、氯化钠(72.42 g/l)、温度(45℃)和pH 9.0。一种碱性脂肪酶被纯化至8.46倍,比活性为1193.59 U mg,分子量为44 kDa。该酶的活性受到EDTA和PMSF的显著抑制,表明它是一种金属酶,丝氨酸残基对催化活性至关重要。因此,本研究中利用海洋鱼类废弃物进行微生物转化生产脂肪酶表明了其在生产高价值产品方面的潜在用途。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/d5d6/4980739/42b7901ad58d/gr1.jpg

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