tellurite-resistance/dicarboxylate transporter (TDT) family protein similar to Schizosaccharomyces pombe malic acid transport protein that functions as a permease for malate and other C4 dicarboxylic acids
C4-dicarboxylate transporter/malic acid transport protein family includes Mae1; This family ...
33-364
4.68e-99
C4-dicarboxylate transporter/malic acid transport protein family includes Mae1; This family contains eukaryotic homologs of C4-dicarboxylate transporter/malic acid transport proteins which are part of the Tellurite-resistance/Dicarboxylate Transporter (TDT) family. This includes the MAE1 gene in Schizosaccharomyces pombe gene that encodes malate permease, Mae1, which functions by proton symport and transports C4-dicarboxylates (malate, fumarate, succinate, oxaloacetate, etc.), but not K-ketoglutarate.
:
Pssm-ID: 187757 Cd Length: 330 Bit Score: 298.01 E-value: 4.68e-99
C4-dicarboxylate transporter/malic acid transport protein family includes Mae1; This family ...
33-364
4.68e-99
C4-dicarboxylate transporter/malic acid transport protein family includes Mae1; This family contains eukaryotic homologs of C4-dicarboxylate transporter/malic acid transport proteins which are part of the Tellurite-resistance/Dicarboxylate Transporter (TDT) family. This includes the MAE1 gene in Schizosaccharomyces pombe gene that encodes malate permease, Mae1, which functions by proton symport and transports C4-dicarboxylates (malate, fumarate, succinate, oxaloacetate, etc.), but not K-ketoglutarate.
Pssm-ID: 187757 Cd Length: 330 Bit Score: 298.01 E-value: 4.68e-99
Voltage-dependent anion channel; This family of transporters has ten alpha helical ...
28-343
4.42e-61
Voltage-dependent anion channel; This family of transporters has ten alpha helical transmembrane segments. The structure of a bacterial homolog of SLAC1 shows it to have a trimeric arrangement. The pore is composed of five helices with a conserved Phe residue involved in gating. One homolog, Mae1 from the yeast Schizosaccharomyces pombe, functions as a malate uptake transporter; another, Ssu1 from Saccharomyces cerevisiae and other fungi including Aspergillus fumigatus, is characterized as a sulfite efflux pump; and TehA from Escherichia coli is identified as a tellurite resistance protein by virtue of its association in the tehA/tehB operon. In plants, this family is found in the stomatal guard cells functioning as an anion-transporting pore. Many homologs are incorrectly annotated as tellurite resistance or dicarboxylate transporter (TDT) proteins.
Pssm-ID: 460983 Cd Length: 321 Bit Score: 199.77 E-value: 4.42e-61
C4-dicarboxylate transporter/malic acid transport protein; The Tellurite-Resistance ...
29-373
8.06e-22
C4-dicarboxylate transporter/malic acid transport protein; The Tellurite-Resistance/Dicarboxylate Transporter (TDT) Family (TC 2.A.16)Two members of the TDT family have been functionally characterized. One is the TehA protein of E. coli which has been implicated in resistance to tellurite; the other is the Mae1 protein of S. pombe which functions in the uptake of malate and other dicarboxylates by a proton symportmechanism. These proteins exhibit 10 putative transmembrane a-helicalspanners (TMSs). [Transport and binding proteins, Carbohydrates, organic alcohols, and acids]
Pssm-ID: 273285 Cd Length: 320 Bit Score: 95.16 E-value: 8.06e-22
C4-dicarboxylate transporter/malic acid transport protein family includes Mae1; This family ...
33-364
4.68e-99
C4-dicarboxylate transporter/malic acid transport protein family includes Mae1; This family contains eukaryotic homologs of C4-dicarboxylate transporter/malic acid transport proteins which are part of the Tellurite-resistance/Dicarboxylate Transporter (TDT) family. This includes the MAE1 gene in Schizosaccharomyces pombe gene that encodes malate permease, Mae1, which functions by proton symport and transports C4-dicarboxylates (malate, fumarate, succinate, oxaloacetate, etc.), but not K-ketoglutarate.
Pssm-ID: 187757 Cd Length: 330 Bit Score: 298.01 E-value: 4.68e-99
Voltage-dependent anion channel; This family of transporters has ten alpha helical ...
28-343
4.42e-61
Voltage-dependent anion channel; This family of transporters has ten alpha helical transmembrane segments. The structure of a bacterial homolog of SLAC1 shows it to have a trimeric arrangement. The pore is composed of five helices with a conserved Phe residue involved in gating. One homolog, Mae1 from the yeast Schizosaccharomyces pombe, functions as a malate uptake transporter; another, Ssu1 from Saccharomyces cerevisiae and other fungi including Aspergillus fumigatus, is characterized as a sulfite efflux pump; and TehA from Escherichia coli is identified as a tellurite resistance protein by virtue of its association in the tehA/tehB operon. In plants, this family is found in the stomatal guard cells functioning as an anion-transporting pore. Many homologs are incorrectly annotated as tellurite resistance or dicarboxylate transporter (TDT) proteins.
Pssm-ID: 460983 Cd Length: 321 Bit Score: 199.77 E-value: 4.42e-61
Tellurite-resistance/Dicarboxylate Transporter (TDT) family includes sulfite sensitivity ...
25-364
1.40e-34
Tellurite-resistance/Dicarboxylate Transporter (TDT) family includes sulfite sensitivity protein (sulfite efflux pump; SSU1); This family contains the sulfite sensitivity protein (sulfite efflux pump; SSU1) and belongs to the tellurite-resistance/dicarboxylate transporter (TDT) family. The SSU1 gene encodes the sulfite pump required for efficient sulfite efflux. Mutations in the SSU1 gene cause sensitivity to sulfite while overexpression confers heightened resistance to sulfite toxicity. In dematophytes and other filamentous fungi, sulfite is excreted as a reducing agent during keratin degradation; thus sulfite transporters in keratinolytic fungi could be a new target for antifungal drugs in dermatology. The number of genes encoding sulfite efflux pumps in fungal genomes varies from species to species.
Pssm-ID: 187758 Cd Length: 341 Bit Score: 130.78 E-value: 1.40e-34
The Tellurite-resistance/Dicarboxylate Transporter (TDT) family; The Tellurite-resistance ...
33-361
1.59e-33
The Tellurite-resistance/Dicarboxylate Transporter (TDT) family; The Tellurite-resistance/Dicarboxylate Transporter (TDT) family includes members from all three kingdoms, but only three members of the family have been functionally characterized: the TehA protein of E. coli functioning as a tellurite-resistance uptake permease, the Mae1 protein of S. pombe functioning in the uptake of malate and other dicarboxylates, and the sulfite efflux pump (SSU1) of Saccharomyces cerevisiae. In plants, the plasma membrane protein SLAC1 (Slow Anion Channel-Associated 1), which is preferentially expressed in guard cells, encodes a distant homolog of fungal and bacterial dicarboxylate/malic acid transport proteins. SLAC1 is essential in mediating stomatal responses to physiological and stress stimuli. Members of the TDT family exhibit 10 putative transmembrane alpha-helical spanners (TMSs).
Pssm-ID: 187756 Cd Length: 326 Bit Score: 127.44 E-value: 1.59e-33
The Tellurite-resistance/Dicarboxylate Transporter (TDT) family; The Tellurite-resistance ...
29-368
1.63e-22
The Tellurite-resistance/Dicarboxylate Transporter (TDT) family; The Tellurite-resistance/Dicarboxylate Transporter (TDT) family includes members from all three kingdoms, but only three members of the family have been functionally characterized: the TehA protein of E. coli functioning as a tellurite-resistance uptake permease, the Mae1 protein of S. pombe functioning in the uptake of malate and other dicarboxylates, and the sulfite efflux pump (SSU1) of Saccharomyces cerevisiae. In plants, the plasma membrane protein SLAC1 (Slow Anion Channel-Associated 1), which is preferentially expressed in guard cells, encodes a distant homolog of fungal and bacterial dicarboxylate/malic acid transport proteins. SLAC1 is essential in mediating stomatal responses to physiological and stress stimuli. Members of the TDT family exhibit 10 putative transmembrane a-helical spanners (TMSs).
Pssm-ID: 187761 Cd Length: 327 Bit Score: 96.99 E-value: 1.63e-22
C4-dicarboxylate transporter/malic acid transport protein; The Tellurite-Resistance ...
29-373
8.06e-22
C4-dicarboxylate transporter/malic acid transport protein; The Tellurite-Resistance/Dicarboxylate Transporter (TDT) Family (TC 2.A.16)Two members of the TDT family have been functionally characterized. One is the TehA protein of E. coli which has been implicated in resistance to tellurite; the other is the Mae1 protein of S. pombe which functions in the uptake of malate and other dicarboxylates by a proton symportmechanism. These proteins exhibit 10 putative transmembrane a-helicalspanners (TMSs). [Transport and binding proteins, Carbohydrates, organic alcohols, and acids]
Pssm-ID: 273285 Cd Length: 320 Bit Score: 95.16 E-value: 8.06e-22
The Tellurite-resistance/Dicarboxylate Transporter (TDT) family; The Tellurite-resistance ...
32-325
4.56e-06
The Tellurite-resistance/Dicarboxylate Transporter (TDT) family; The Tellurite-resistance/Dicarboxylate Transporter (TDT) family includes members from all three kingdoms, but only three members of the family have been functionally characterized: the TehA protein of E. coli functioning as a tellurite-resistance uptake permease, the Mae1 protein of S. pombe functioning in the uptake of malate and other dicarboxylates, and the sulfite efflux pump (SSU1) of Saccharomyces cerevisiae. In plants, the plasma membrane protein SLAC1 (Slow Anion Channel-Associated 1), which is preferentially expressed in guard cells, encodes a distant homolog of fungal and bacterial dicarboxylate/malic acid transport proteins. SLAC1 is essential in mediating stomatal responses to physiological and stress stimuli. Members of the TDT family exhibit 10 putative transmembrane alpha-helical spanners (TMSs).
Pssm-ID: 187760 Cd Length: 327 Bit Score: 48.09 E-value: 4.56e-06
The Tellurite-resistance/Dicarboxylate Transporter (TDT) family includes TehA proteins; The ...
42-343
4.02e-04
The Tellurite-resistance/Dicarboxylate Transporter (TDT) family includes TehA proteins; The Tellurite-resistance/Dicarboxylate Transporter (TDT) family includes members from all three kingdoms, but only three members of the family have been functionally characterized: the TehA protein of E. coli functioning as a tellurite-resistance uptake permease, the Mae1 protein of S. pombe functioning in the uptake of malate and other dicarboxylates, and the sulfite efflux pump (SSU1) of Saccharomyces cerevisiae. In plants, the plasma membrane protein SLAC1 (Slow Anion Channel-Associated 1), which is preferentially expressed in guard cells, encodes a distant homolog of fungal and bacterial dicarboxylate/malic acid transport proteins. SLAC1 is essential in mediating stomatal responses to physiological and stress stimuli. Members of the TDT family exhibit 10 putative transmembrane a-helical spanners (TMSs).
Pssm-ID: 187762 Cd Length: 289 Bit Score: 41.76 E-value: 4.02e-04
Tellurite-resistance/Dicarboxylate Transporter (TDT) family includes SLAC1 (Slow Anion ...
28-337
4.53e-03
Tellurite-resistance/Dicarboxylate Transporter (TDT) family includes SLAC1 (Slow Anion Channel-Associated 1); SLAC1 (Slow Anion Channel-Associated 1) is a plasma membrane protein, preferentially expressed in guard cells, which encodes a distant homolog of fungal and bacterial dicarboxylate/malic acid transport proteins. It is essential for stomatal closure in response to carbon dioxide, abscisic acid, ozone, light/dark transitions, humidity change, calcium ions, hydrogen peroxide and nitric oxide. In the Arabidopsis genome, SLAC1 is part of a gene family with five members and encodes a membrane protein that has ten putative transmembrane domains flanked by large N- and C-terminal domains. Mutations in SLAC1 impair slow (S-type) anion channel currents that are activated by cytosolic calcium ions and abscisic acid, but do not affect rapid (R-type) anion channel currents or calcium ion channel function.
Pssm-ID: 187763 Cd Length: 297 Bit Score: 38.68 E-value: 4.53e-03
Database: CDSEARCH/cdd Low complexity filter: no Composition Based Adjustment: yes E-value threshold: 0.01
References:
Wang J et al. (2023), "The conserved domain database in 2023", Nucleic Acids Res.51(D)384-8.
Lu S et al. (2020), "The conserved domain database in 2020", Nucleic Acids Res.48(D)265-8.
Marchler-Bauer A et al. (2017), "CDD/SPARCLE: functional classification of proteins via subfamily domain architectures.", Nucleic Acids Res.45(D)200-3.
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