Dissection of goadsporin biosynthesis by in vitro reconstitution leading to designer analogues expressed in vivo

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作者
Taro Ozaki
Kona Yamashita
Yuki Goto
Morito Shimomura
Shohei Hayashi
Shumpei Asamizu
Yoshinori Sugai
Haruo Ikeda
Hiroaki Suga
Hiroyasu Onaka
机构
[1] Graduate School of Agricultural and Life Sciences,Department of Biotechnology
[2] The University of Tokyo,Department of Chemistry
[3] Graduate School of Science,undefined
[4] The University of Tokyo,undefined
[5] Kitasato Institute for Life Sciences,undefined
[6] Kitasato University,undefined
[7] Biotechnology Research Center,undefined
[8] Toyama Prefectural University,undefined
[9] Present address: Department of Chemistry,undefined
[10] Graduate School of Science,undefined
[11] Hokkaido University,undefined
[12] Sapporo,undefined
[13] Hokkaido 060-0810,undefined
[14] Japan,undefined
[15] Present address: Department of Agricultural and Forest Sciences,undefined
[16] Faculty of Life and Environmental Science,undefined
[17] Shimane University,undefined
[18] 1060 Nishikawatsu,undefined
[19] Matsue,undefined
[20] Shimane 690-8504,undefined
[21] Japan,undefined
来源
Nature Communications | / 8卷
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摘要
Goadsporin (GS) is a member of ribosomally synthesized and post-translationally modified peptides (RiPPs), containing an N-terminal acetyl moiety, six azoles and two dehydroalanines in the peptidic main chain. Although the enzymes involved in GS biosynthesis have been defined, the principle of how the respective enzymes control the specific modifications remains elusive. Here we report a one-pot synthesis of GS using the enzymes reconstituted in the ‘flexible’ in vitro translation system, referred to as the FIT–GS system. This system allows us to readily prepare not only the precursor peptide from its synthetic DNA template but also 52 mutants, enabling us to dissect the modification determinants of GodA for each enzyme. The in vitro knowledge has also led us to successfully produce designer GS analogues in vivo. The methodology demonstrated in this work is also applicable to other RiPP biosynthesis, allowing us to rapidly investigate the principle of modification events with great ease.
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