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1.14.19.61
physiological function
a gene disruption mutant produces serinol and dihydrorhizobitoxine but no rhizobitoxine, both in culture and in planta. Contrary to wild-type, Glycine max inoculated with a mutant strain shows no foliar chlorosis. The mutants shows significantly less nodulation competitiveness than the wild-type strain on Macroptilium atropurpureum. Rhizobitoxine production correlates with the amount of RtxC transcript
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744088
1.14.19.61
physiological function
RtxA and rRxC are necessary for rhizobitoxine production. RtxA is responsible for serinol formation and dihydrorhizobitoxine biosynthesis. RtxC encodes dihydrorhizobitoxine desaturase for the final step of rhizobitoxine production. An insertional mutant of rtxC produces serinol and dihydrorhizobitoxine but no rhizobitoxine
744087
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