Transcriptome and Metabolite analysis reveal candidate genes of the cardiac glycoside biosynthetic pathway from Calotropis procera

Calotropis procera is a medicinal plant of immense importance due to its pharmaceutical active components, especially cardiac glycosides (CG). As genomic resources for this plant are limited, the genes involved in CG biosynthetic pathway remain largely unknown till date. Our study on stage and tissu...

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Veröffentlicht in:Scientific reports 2016-10, Vol.6 (1), p.34464-34464, Article 34464
Hauptverfasser: Pandey, Akansha, Swarnkar, Vishakha, Pandey, Tushar, Srivastava, Piush, Kanojiya, Sanjeev, Mishra, Dipak Kumar, Tripathi, Vineeta
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container_issue 1
container_start_page 34464
container_title Scientific reports
container_volume 6
creator Pandey, Akansha
Swarnkar, Vishakha
Pandey, Tushar
Srivastava, Piush
Kanojiya, Sanjeev
Mishra, Dipak Kumar
Tripathi, Vineeta
description Calotropis procera is a medicinal plant of immense importance due to its pharmaceutical active components, especially cardiac glycosides (CG). As genomic resources for this plant are limited, the genes involved in CG biosynthetic pathway remain largely unknown till date. Our study on stage and tissue specific metabolite accumulation showed that CG’s were maximally accumulated in stems of 3 month old seedlings. De novo transcriptome sequencing of same was done using high throughput Illumina HiSeq platform generating 44074 unigenes with average mean length of 1785 base pair. Around 66.6% of unigenes were annotated by using various public databases and 5324 unigenes showed significant match in the KEGG database involved in 133 different pathways of plant metabolism. Further KEGG analysis resulted in identification of 336 unigenes involved in cardenolide biosynthesis. Tissue specific expression analysis of 30 putative transcripts involved in terpenoid, steroid and cardenolide pathways showed a positive correlation between metabolite and transcript accumulation. Wound stress elevated CG levels as well the levels of the putative transcripts involved in its biosynthetic pathways. This result further validated the involvement of identified transcripts in CGs biosynthesis. The identified transcripts will lay a substantial foundation for further research on metabolic engineering and regulation of cardiac glycosides biosynthesis pathway genes.
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subjects 38/43
38/77
38/90
45
49/40
631/449/2661
631/449/2667
Biosynthesis
Calotropis - genetics
Calotropis - metabolism
Cardiac glycosides
Cardiac Glycosides - biosynthesis
Cardiac Glycosides - genetics
Gene expression
Genes, Plant
Glycosides
Humanities and Social Sciences
Medicinal plants
Metabolic engineering
Metabolites
Metabolome - physiology
multidisciplinary
Plant metabolism
Science
Seedlings
Stems
Transcription
Transcriptome - physiology
Wounds
title Transcriptome and Metabolite analysis reveal candidate genes of the cardiac glycoside biosynthetic pathway from Calotropis procera
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