FOG03113
EOG8VQ875
sce:absent
Genes: 17
EOG8VQ875
sce:absent
Genes: 17
AspGD Description
Acid phosphatase
| Mitochondrial localization predictions | ||
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| Phobius transmembrane predictions
9 genes with posterior transmembrane prediction > 50% |
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FOG03114
EOG8VQ875
sce:absent
Genes: 8
EOG8VQ875
sce:absent
Genes: 8
References
De Groot PW, et al. (2003 Jul 15). Genome-wide identification of fungal GPI proteins.
Chauhan N, et al. (2003 Oct). Candida albicans response regulator gene SSK1 regulates a subset of genes whose functions are associated with cell wall biosynthesis and adaptation to oxidative stress.
Doedt T, et al. (2004 Jul). APSES proteins regulate morphogenesis and metabolism in Candida albicans.
García-Sánchez S, et al. (2005 Jun). Global roles of Ssn6 in Tup1- and Nrg1-dependent gene regulation in the fungal pathogen, Candida albicans.
Granger BL, et al. (2005 May). Yeast wall protein 1 of Candida albicans.
Murillo LA, et al. (2005 Sep). Genome-wide transcription profiling of the early phase of biofilm formation by Candida albicans.
Castillo L, et al. (2006 Feb). Genomic response programs of Candida albicans following protoplasting and regeneration.
Hiller E, et al. (2007 Nov). Candida albicans Sun41p, a putative glycosidase, is involved in morphogenesis, cell wall biogenesis, and biofilm formation.
Altenburg SD, et al. (2008 Mar). Increased filamentous growth of Candida albicans in simulated microgravity.
Castillo L, et al. (2008 Sep). A study of the Candida albicans cell wall proteome.
Maddi A, et al. (2009 Oct). Trifluoromethanesulfonic acid-based proteomic analysis of cell wall and secreted proteins of the ascomycetous fungi Neurospora crassa and Candida albicans.
Synnott JM, et al. (2010 Nov). Regulation of the hypoxic response in Candida albicans.
Heilmann CJ, et al. (2011 Aug). Hyphal induction in the human fungal pathogen Candida albicans reveals a characteristic wall protein profile.
Schild L, et al. (2011 Jan). Proteolytic cleavage of covalently linked cell wall proteins by Candida albicans Sap9 and Sap10.
Sosinska GJ, et al. (2011 Jan). Mass spectrometric quantification of the adaptations in the wall proteome of Candida albicans in response to ambient pH.
Ganguly S, et al. (2011 Nov). Zap1 control of cell-cell signaling in Candida albicans biofilms.
Granger BL, et al. (2012 Jun). Insight into the antiadhesive effect of yeast wall protein 1 of Candida albicans.
Heilmann CJ, et al. (2013 Feb). Surface stress induces a conserved cell wall stress response in the pathogenic fungus Candida albicans.
Röhm M, et al. (2013 Jan). A family of secreted pathogenesis-related proteins in Candida albicans.
Tian J, et al. (2013 Nov). BDSF inhibits Candida albicans adherence to urinary catheters.
| Mitochondrial localization predictions | ||
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| Phobius transmembrane predictions
5 genes with posterior transmembrane prediction > 50% |
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FOG03115
EOG8VQ875
sce:CCW12;CCW22
Genes: 6
EOG8VQ875
sce:CCW12;CCW22
Genes: 6
SGD Description
Cell wall mannoprotein; plays a role in maintenance of newly synthesized areas of cell wall; localizes to periphery of small buds, septum region of larger buds, and shmoo tip; CCW12 has a paralog, YDR134C, that arose from the whole genome duplication|
References
Seidel J, et al. (1997 Jul). Characterization of two new genes down-regulated by alpha-factor.
Hamada K, et al. (1998 Apr). Screening for glycosylphosphatidylinositol (GPI)-dependent cell wall proteins in Saccharomyces cerevisiae.
Mrsa V, et al. (1999 May). Deletion of new covalently linked cell wall glycoproteins alters the electrophoretic mobility of phosphorylated wall components of Saccharomyces cerevisiae.
Hagen I, et al. (2004 Jun). Sed1p and Srl1p are required to compensate for cell wall instability in Saccharomyces cerevisiae mutants defective in multiple GPI-anchored mannoproteins.
Ragni E, et al. (2007 Apr). Characterization of Ccw12p, a major key player in cell wall stability of Saccharomyces cerevisiae.
Starita LM, et al. (2012 Jan). Sites of ubiquitin attachment in Saccharomyces cerevisiae.
| Mitochondrial localization predictions | ||
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| Phobius transmembrane predictions
0 genes with posterior transmembrane prediction > 50% |
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FOG03116
EOG8VQ875
sce:absent
Genes: 4
EOG8VQ875
sce:absent
Genes: 4
References
Wendland J, et al. (2011 Dec). Genome evolution in the eremothecium clade of the Saccharomyces complex revealed by comparative genomics.
| Mitochondrial localization predictions | ||
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| Raw data
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| Phobius transmembrane predictions
1 genes with posterior transmembrane prediction > 50% |
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FOG03117
EOG8VQ875
sce:absent
Genes: 2
EOG8VQ875
sce:absent
Genes: 2
AspGD Description
Extracellular pH 6.0-optimum acid phosphatase
References
MacRae WD, et al. (1993 Oct 15). Heterologous protein secretion directed by a repressible acid phosphatase system of Aspergillus niger.
| Mitochondrial localization predictions | ||
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| Raw data
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| Phobius transmembrane predictions
0 genes with posterior transmembrane prediction > 50% |
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FOG03118
EOG8VQ875
sce:absent
Genes: 2
EOG8VQ875
sce:absent
Genes: 2
References
De Groot PW, et al. (2003 Jul 15). Genome-wide identification of fungal GPI proteins.
Lan CY, et al. (2004 Sep). Regulatory networks affected by iron availability in Candida albicans.
Zhao X, et al. (2005 May). Analysis of the Candida albicans Als2p and Als4p adhesins suggests the potential for compensatory function within the Als family.
Yeater KM, et al. (2007 Aug). Temporal analysis of Candida albicans gene expression during biofilm development.
| Mitochondrial localization predictions | ||
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| Phobius transmembrane predictions
0 genes with posterior transmembrane prediction > 50% |
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FOG03119
EOG8VQ875
sce:absent
Genes: 2
EOG8VQ875
sce:absent
Genes: 2
| Mitochondrial localization predictions | ||
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| Predotar | TargetP | MitoProt |
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| Raw data
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| Phobius transmembrane predictions
1 genes with posterior transmembrane prediction > 50% |
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FOG03120
EOG8VQ875
sce:SPI1;SED1
Genes: 12
EOG8VQ875
sce:SPI1;SED1
Genes: 12
SGD Description
GPI-anchored cell wall protein involved in weak acid resistance; basal expression requires Msn2p/Msn4p; expression is induced under conditions of stress and during the diauxic shift; SPI1 has a paralog, SED1, that arose from the whole genome duplication|Major stress-induced structural GPI-cell wall glycoprotein; associates with translating ribosomes, possible role in mitochondrial genome maintenance; ORF contains two distinct variable minisatellites; SED1 has a paralog, SPI1, that arose from the whole genome duplication
References
Hardwick KG, et al. (1992 Nov). Genes that allow yeast cells to grow in the absence of the HDEL receptor.
van der Vaart JM, et al. (1996 Dec 6). The retention mechanism of cell wall proteins in Saccharomyces cerevisiae. Wall-bound Cwp2p is beta-1,6-glucosylated.
Van der Vaart JM, et al. (1997 Feb). Comparison of cell wall proteins of Saccharomyces cerevisiae as anchors for cell surface expression of heterologous proteins.
Hamada K, et al. (1998 Apr). Screening for glycosylphosphatidylinositol (GPI)-dependent cell wall proteins in Saccharomyces cerevisiae.
Shimoi H, et al. (1998 Jul). Sed1p is a major cell wall protein of Saccharomyces cerevisiae in the stationary phase and is involved in lytic enzyme resistance.
Hamada K, et al. (1999 Jul). Amino acid residues in the omega-minus region participate in cellular localization of yeast glycosylphosphatidylinositol-attached proteins.
Puig S, et al. (2000 Jan 30). Stress response and expression patterns in wine fermentations of yeast genes induced at the diauxic shift.
Braun BR, et al. (2000 May). TUP1, CPH1 and EFG1 make independent contributions to filamentation in candida albicans.
Braun BR, et al. (2000 Sep). Identification and characterization of TUP1-regulated genes in Candida albicans.
Kadosh D, et al. (2001 Apr). Rfg1, a protein related to the Saccharomyces cerevisiae hypoxic regulator Rox1, controls filamentous growth and virulence in Candida albicans.
Lane S, et al. (2001 Dec 28). DNA array studies demonstrate convergent regulation of virulence factors by Cph1, Cph2, and Efg1 in Candida albicans.
Kapteyn JC, et al. (2001 Jan). Low external pH induces HOG1-dependent changes in the organization of the Saccharomyces cerevisiae cell wall.
Mannazzu I, et al. (2002 Nov). SED1 gene length and sequence polymorphisms in feral strains of Saccharomyces cerevisiae.
Nantel A, et al. (2002 Oct). Transcription profiling of Candida albicans cells undergoing the yeast-to-hyphal transition.
De Groot PW, et al. (2003 Jul 15). Genome-wide identification of fungal GPI proteins.
Bennett RJ, et al. (2003 Nov). Identification and characterization of a Candida albicans mating pheromone.
Hagen I, et al. (2004 Jun). Sed1p and Srl1p are required to compensate for cell wall instability in Saccharomyces cerevisiae mutants defective in multiple GPI-anchored mannoproteins.
Lotz H, et al. (2004 Jun). RBR1, a novel pH-regulated cell wall gene of Candida albicans, is repressed by RIM101 and activated by NRG1.
Bowen S, et al. (2004 May). Incorporation of Sed1p into the cell wall of Saccharomyces cerevisiae involves KRE6.
Harcus D, et al. (2004 Oct). Transcription profiling of cyclic AMP signaling in Candida albicans.
Enjalbert B, et al. (2005 Jul). Release from quorum-sensing molecules triggers hyphal formation during Candida albicans resumption of growth.
Zhao R, et al. (2005 Jul). Unique aspects of gene expression during Candida albicans mating and possible G(1) dependency.
García-Sánchez S, et al. (2005 Jun). Global roles of Ssn6 in Tup1- and Nrg1-dependent gene regulation in the fungal pathogen, Candida albicans.
Verstrepen KJ, et al. (2005 Sep). Intragenic tandem repeats generate functional variability.
Simões T, et al. (2006 Nov). The SPI1 gene, encoding a glycosylphosphatidylinositol-anchored cell wall protein, plays a prominent role in the development of yeast resistance to lipophilic weak-acid food preservatives.
White SJ, et al. (2007 Dec). Self-regulation of Candida albicans population size during GI colonization.
Kebaara BW, et al. (2008 Jun). Candida albicans Tup1 is involved in farnesol-mediated inhibition of filamentous-growth induction.
Plaine A, et al. (2008 Oct). Functional analysis of Candida albicans GPI-anchored proteins: roles in cell wall integrity and caspofungin sensitivity.
Castillo L, et al. (2008 Sep). A study of the Candida albicans cell wall proteome.
Ene IV, et al. (2009 Dec). Hwp1 and related adhesins contribute to both mating and biofilm formation in Candida albicans.
Sorgo AG, et al. (2010 Aug). Mass spectrometric analysis of the secretome of Candida albicans.
Chaudhuri R, et al. (2011 Apr 15). FungalRV: adhesin prediction and immunoinformatics portal for human fungal pathogens.
Heilmann CJ, et al. (2011 Aug). Hyphal induction in the human fungal pathogen Candida albicans reveals a characteristic wall protein profile.
Sorgo AG, et al. (2011 Aug). Effects of fluconazole on the secretome, the wall proteome, and wall integrity of the clinical fungus Candida albicans.
Sosinska GJ, et al. (2011 Jan). Mass spectrometric quantification of the adaptations in the wall proteome of Candida albicans in response to ambient pH.
| Mitochondrial localization predictions | ||
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| Raw data
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| Phobius transmembrane predictions
4 genes with posterior transmembrane prediction > 50% |
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