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YEAST:WHI3

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Species (Taxon ID) Saccharomyces cerevisiae (strain ATCC 204508 / S288c) (Baker's yeast). (559292)
Gene Name(s) WHI3
Protein Name(s) Protein WHI3
External Links
UniProt P34761
EMBL U01095
X78898
Z71473
BK006947
PIR S50734
RefSeq NP_014202.1
ProteinModelPortal P34761
SMR P34761
BioGrid 35636
IntAct P34761
MINT MINT-4500279
STRING 4932.YNL197C
MaxQB P34761
PaxDb P34761
PeptideAtlas P34761
EnsemblFungi [example_ID YNL197C]
GeneID 855524
KEGG sce:YNL197C
CYGD YNL197c
SGD S000005141
eggNOG NOG255497
GeneTree ENSGT00530000067542
HOGENOM HOG000074699
InParanoid P34761
OMA VRGPNSR
OrthoDB EOG7PP5GG
BioCyc YEAST:G3O-33207-MONOMER
NextBio 979559
Proteomes UP000002311
Genevestigator P34761
GO GO:0005737
GO:0003729
GO:0000166
GO:0007049
GO:0051220
GO:0001403
GO:0061157
GO:0007124
GO:0008361
GO:0061013
Gene3D 3.30.70.330
InterPro IPR012677
IPR000504
Pfam PF00076
SMART SM00360
PROSITE PS50102

Annotations

Qualifier GO ID GO term name Reference ECO ID ECO term name with/from Aspect Extension Notes Status
GO:0071554

cell wall organization or biogenesis

PMID:18667435[1]

ECO:0000315

P

Figure 4 demonstrates that in cell walls that are deficient of WHI3 protein, significant deterioration occurs. In Figure 4, WHI3 deficient cells, as well as other mutants and controls, were treated with cell wall inhibitors resulting in horrible degradation in those cells without WHI3. The degradation in cells missing WHI3 can affect development and even survival of the cell. Cells with the protein were relatively unscathed by the cell wall inhibitors.

complete
CACAO 9864

GO:0045901

positive regulation of translational elongation

PMID:23770701[2]

ECO:0000315

P

Fig. 1B, 2 - protein:mRNA ratio decreases in whi3delta mutant compared to wildtype even though RNA level remains constant - suggests Whi3 positively regulates translation

Fig. 3 - wildtype and whi3delta mutant supplemented with inhibitors of translational elongation, growth of mutant more adversely affected than growth of wildtype - suggests Whi3 affects translation elongation specifically

complete
CACAO 10192

GO:0045793

positive regulation of cell size

PMID:23770701[2]

ECO:0000315

P

Fig 1A - cell size decreases in whi3delta mutant

complete
CACAO 10193

GO:0010811

positive regulation of cell-substrate adhesion

PMID:21149646[3]

ECO:0000315

P

Fig 1b: wildtype and mutant (didn't express Whi3) yeast both grew on plate. Mutant yeast washed off the plate, wildtype yeast stuck.

complete
CACAO 10313

GO:0045893

positive regulation of transcription, DNA-templated

PMID:21149646[3]

ECO:0000315

P

Fig 1a: expression of Whi3 resulted in higher FLO11 RNA levels

complete
CACAO 10320

GO:0045727

positive regulation of translation

PMID:21149646[3]

ECO:0000315

P

Fig 3a: Levels of Yak1-HA protein and YAK1-HA RNA were measured in wildtype and mutant (doesn't express Whi3) yeast - RNA levels remained constant in wildtype and mutant but protein levels decreased in mutant

complete
CACAO 10338

GO:0032106

positive regulation of response to extracellular stimulus

PMID:21149646[3]

ECO:0000315

P

Fig 4a: Glucose starvation in wildtype led to increased levels of FLO11 RNA. Mutants without whi3 did not have increased levels of FLO11.

complete
CACAO 10519

involved_in

GO:0007089

traversing start control point of mitotic cell cycle

PMID:11691832[4]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

involved_in

GO:0007089

traversing start control point of mitotic cell cycle

PMID:11691832[4]

ECO:0000316

genetic interaction evidence used in manual assertion

SGD:S000000038

P

Seeded From UniProt

complete

involved_in

GO:0008361

regulation of cell size

PMID:12089449[5]

ECO:0007001

high throughput mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

part_of

GO:0010494

cytoplasmic stress granule

PMID:26777405[6]

ECO:0000314

direct assay evidence used in manual assertion

C

Seeded From UniProt

complete

involved_in

GO:0010811

positive regulation of cell-substrate adhesion

PMID:21149646[3]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

involved_in

GO:0032106

positive regulation of response to extracellular stimulus

PMID:21149646[3]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

involved_in

GO:0045727

positive regulation of translation

PMID:21149646[3]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

involved_in

GO:0045893

positive regulation of transcription, DNA-templated

PMID:21149646[3]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

involved_in

GO:0071554

cell wall organization or biogenesis

PMID:18667435[1]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

involved_in

GO:0045793

positive regulation of cell size

PMID:23770701[2]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

involved_in

GO:0045901

positive regulation of translational elongation

PMID:23770701[2]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

involved_in

GO:0061157

mRNA destabilization

PMID:24386402[7]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

has_direct_input:(SGD:S000000038)

Seeded From UniProt

complete

involved_in

GO:0061013

regulation of mRNA catabolic process

PMID:24386330[8]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

involved_in

GO:0051220

cytoplasmic sequestering of protein

PMID:14685274[9]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

part_of

GO:0010494

cytoplasmic stress granule

PMID:24386330[8]

ECO:0000314

direct assay evidence used in manual assertion

C

exists_during:(GO:0034605)

Seeded From UniProt

complete

part_of

GO:0010494

cytoplasmic stress granule

PMID:24386402[7]

ECO:0000314

direct assay evidence used in manual assertion

C

exists_during:(GO:0034605)

Seeded From UniProt

complete

involved_in

GO:0007124

pseudohyphal growth

PMID:14685274[9]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

involved_in

GO:0007124

pseudohyphal growth

PMID:9055077[10]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

part_of

GO:0005737

cytoplasm

PMID:11691832[4]

ECO:0000314

direct assay evidence used in manual assertion

C

Seeded From UniProt

complete

enables

GO:0003729

mRNA binding

PMID:11691832[4]

ECO:0000315

mutant phenotype evidence used in manual assertion

F

has_direct_input:(SGD:S000000038)

Seeded From UniProt

complete

enables

GO:0003729

mRNA binding

PMID:11691832[4]

ECO:0000314

direct assay evidence used in manual assertion

F

has_direct_input:(SGD:S000000038)

Seeded From UniProt

complete

enables

GO:0003729

mRNA binding

PMID:24386402[7]

ECO:0000314

direct assay evidence used in manual assertion

F

has_direct_input:(SGD:S000000038)

Seeded From UniProt

complete

involved_in

GO:0001403

invasive growth in response to glucose limitation

PMID:14685274[9]

ECO:0000315

mutant phenotype evidence used in manual assertion

P

Seeded From UniProt

complete

part_of

GO:0000932

P-body

PMID:24386402[7]

ECO:0000314

direct assay evidence used in manual assertion

C

exists_during:(GO:0042149)

Seeded From UniProt

complete

enables

GO:0035614

snRNA stem-loop binding

PMID:21873635[11]

ECO:0000318

biological aspect of ancestor evidence used in manual assertion

FB:FBgn0003449
PANTHER:PTN000827569

F

Seeded From UniProt

complete

enables

GO:0030619

U1 snRNA binding

PMID:21873635[11]

ECO:0000318

biological aspect of ancestor evidence used in manual assertion

FB:FBgn0003449
PANTHER:PTN000052389
SGD:S000000323

F

Seeded From UniProt

complete

part_of

GO:0005685

U1 snRNP

PMID:21873635[11]

ECO:0000318

biological aspect of ancestor evidence used in manual assertion

PANTHER:PTN000052389
PomBase:SPBC4B4.07c
RGD:1307416
SGD:S000000323
TAIR:locus:2061976
UniProtKB:P09012

C

Seeded From UniProt

complete

involved_in

GO:0000398

mRNA splicing, via spliceosome

PMID:21873635[11]

ECO:0000318

biological aspect of ancestor evidence used in manual assertion

PANTHER:PTN000827569
SGD:S000000323
SGD:S000001448
UniProtKB:P08579

P

Seeded From UniProt

complete

enables

GO:0003676

nucleic acid binding

GO_REF:0000002

ECO:0000256

match to sequence model evidence used in automatic assertion

InterPro:IPR000504
InterPro:IPR035979

F

Seeded From UniProt

complete

enables

GO:0003723

RNA binding

GO_REF:0000037

ECO:0000322

imported manually asserted information used in automatic assertion

UniProtKB-KW:KW-0694

F

Seeded From UniProt

complete

involved_in

GO:0007049

cell cycle

GO_REF:0000037

ECO:0000322

imported manually asserted information used in automatic assertion

UniProtKB-KW:KW-0131

P

Seeded From UniProt

complete

Notes

References

See Help:References for how to manage references in GONUTS.

  1. 1.0 1.1 Colomina, N et al. (2008) Whi3, a developmental regulator of budding yeast, binds a large set of mRNAs functionally related to the endoplasmic reticulum. J. Biol. Chem. 283 28670-9 PubMed GONUTS page
  2. 2.0 2.1 2.2 2.3 Schladebeck, S & Mösch, HU (2013) The RNA-binding protein Whi3 is a key regulator of developmental signaling and ploidy in Saccharomyces cerevisiae. Genetics 195 73-86 PubMed GONUTS page
  3. 3.0 3.1 3.2 3.3 3.4 3.5 3.6 3.7 Malcher, M et al. (2011) The Yak1 protein kinase lies at the center of a regulatory cascade affecting adhesive growth and stress resistance in Saccharomyces cerevisiae. Genetics 187 717-30 PubMed GONUTS page
  4. 4.0 4.1 4.2 4.3 4.4 Garí, E et al. (2001) Whi3 binds the mRNA of the G1 cyclin CLN3 to modulate cell fate in budding yeast. Genes Dev. 15 2803-8 PubMed GONUTS page
  5. Jorgensen, P et al. (2002) Systematic identification of pathways that couple cell growth and division in yeast. Science 297 395-400 PubMed GONUTS page
  6. Jain, S et al. (2016) ATPase-Modulated Stress Granules Contain a Diverse Proteome and Substructure. Cell 164 487-98 PubMed GONUTS page
  7. 7.0 7.1 7.2 7.3 Cai, Y & Futcher, B (2013) Effects of the yeast RNA-binding protein Whi3 on the half-life and abundance of CLN3 mRNA and other targets. PLoS ONE 8 e84630 PubMed GONUTS page
  8. 8.0 8.1 Holmes, KJ et al. (2013) Whi3, an S. cerevisiae RNA-binding protein, is a component of stress granules that regulates levels of its target mRNAs. PLoS ONE 8 e84060 PubMed GONUTS page
  9. 9.0 9.1 9.2 Wang, H et al. (2004) Recruitment of Cdc28 by Whi3 restricts nuclear accumulation of the G1 cyclin-Cdk complex to late G1. EMBO J. 23 180-90 PubMed GONUTS page
  10. Mösch, HU & Fink, GR (1997) Dissection of filamentous growth by transposon mutagenesis in Saccharomyces cerevisiae. Genetics 145 671-84 PubMed GONUTS page
  11. 11.0 11.1 11.2 11.3 Gaudet, P et al. (2011) Phylogenetic-based propagation of functional annotations within the Gene Ontology consortium. Brief. Bioinformatics 12 449-62 PubMed GONUTS page