BAIT
DFR
DIHYDROFLAVONOL 4-REDUCTASE, DIHYDROKAEMPFEROL 4-REDUCTASE, M318, MJB21.18, MJB21_18, TT3, AT5G42800
dihydroflavonol-4-reductase
GO Process (1)
GO Function (1)
GO Component (1)
Gene Ontology Biological Process
Gene Ontology Molecular Function
Gene Ontology Cellular Component
Arabidopsis thaliana (Columbia)
PREY
TT4
ATCHS, CHALCONE SYNTHASE, CHALCONE/STILBENE SYNTHASE, CHS, MAC12.28, MAC12_28, NARINGENIN-CHALCONE SYNTHASE, TRANSPARENT TESTA 4, AT5G13930
chalcone synthase
GO Process (10)
GO Function (2)
GO Component (4)
Gene Ontology Biological Process
- auxin polar transport [IMP]
- chalcone biosynthetic process [IMP]
- flavonoid biosynthetic process [IMP, ISS]
- regulation of anthocyanin biosynthetic process [IEP]
- response to UV-B [IMP]
- response to auxin [IEP]
- response to gravity [IMP]
- response to jasmonic acid [IEP]
- response to oxidative stress [IEP]
- response to wounding [IEP]
Gene Ontology Molecular Function
Gene Ontology Cellular Component
Arabidopsis thaliana (Columbia)
FRET
An interaction is inferred when close proximity of interaction partners is detected by fluorescence resonance energy transfer between pairs of fluorophore-labeled molecules, such as occurs between CFP (donor) and YFP (acceptor) fusion proteins.
Publication
Foerster resonance energy transfer demonstrates a flavonoid metabolon in living plant cells that displays competitive interactions between enzymes.
We have used Foerster resonance energy transfer detected by fluorescence lifetime imaging microscopy (FLIM-FRET) to provide the first evidence from living plants cells for the existence of a flavonoid metabolon. The distribution of flux within this system may be regulated by the direct competition of enzymes that catalyze key branch-point reactions, flavonol synthase 1 and dihydroflavonol 4-reductase, for association with ... [more]
FEBS Lett. Jul. 21, 2011; 585(14);2193-8 [Pubmed: 21669202]
Throughput
- Low Throughput
Related interactions
Curated By
- BioGRID