TY - JOUR
T1 - Amycolatopsis mediterranei
T2 - A Sixty-Year Journey from Strain Isolation to Unlocking Its Potential of Rifamycin Analogue Production by Combinatorial Biosynthesis
AU - Sood, Utkarsh
AU - Müller, Moritz
AU - Lan, Tian
AU - Garg, Gauri
AU - Singhvi, Nirjara
AU - Hira, Princy
AU - Singh, Priya
AU - Nigam, Aeshna
AU - Verma, Mansi
AU - Lata, Pushp
AU - Kaur, Hardeep
AU - Kumar, Abhilash
AU - Rawat, Charu Dogra
AU - Lal, Sukanya
AU - Aldrich, Courtney
AU - Bechthold, Andreas
AU - Lal, Rup
N1 - Publisher Copyright:
© 2024 American Chemical Society and American Society of Pharmacognosy.
PY - 2024/2/23
Y1 - 2024/2/23
N2 - Ever since the isolation of Amycolatopsis mediterranei in 1957, this strain has been the focus of research worldwide. In the last 60 years or more, our understanding of the taxonomy, development of cloning vectors and conjugation system, physiology, genetics, genomics, and biosynthetic pathway of rifamycin B production in A. mediterranei has substantially increased. In particular, the development of cloning vectors, transformation system, characterization of the rifamycin biosynthetic gene cluster, and the regulation of rifamycin B production by the pioneering work of Heinz Floss have made the rifamycin polyketide biosynthetic gene cluster (PKS) an attractive target for extensive genetic manipulations to produce rifamycin B analogues which could be effective against multi-drug-resistant tuberculosis. Additionally, a better understanding of the regulation of rifamycin B production and the application of newer genomics tools, including CRISPR-assisted genome editing systems, might prove useful to overcome the limitations associated with low production of rifamycin analogues.
AB - Ever since the isolation of Amycolatopsis mediterranei in 1957, this strain has been the focus of research worldwide. In the last 60 years or more, our understanding of the taxonomy, development of cloning vectors and conjugation system, physiology, genetics, genomics, and biosynthetic pathway of rifamycin B production in A. mediterranei has substantially increased. In particular, the development of cloning vectors, transformation system, characterization of the rifamycin biosynthetic gene cluster, and the regulation of rifamycin B production by the pioneering work of Heinz Floss have made the rifamycin polyketide biosynthetic gene cluster (PKS) an attractive target for extensive genetic manipulations to produce rifamycin B analogues which could be effective against multi-drug-resistant tuberculosis. Additionally, a better understanding of the regulation of rifamycin B production and the application of newer genomics tools, including CRISPR-assisted genome editing systems, might prove useful to overcome the limitations associated with low production of rifamycin analogues.
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U2 - 10.1021/acs.jnatprod.3c00686
DO - 10.1021/acs.jnatprod.3c00686
M3 - Article
C2 - 38289177
AN - SCOPUS:85184810514
SN - 0163-3864
VL - 87
SP - 424
EP - 438
JO - Journal of Natural Products
JF - Journal of Natural Products
IS - 2
ER -