node1 | node2 | node1 accession | node2 accession | node1 annotation | node2 annotation | score |
dctR | gadA | b3507 | b3517 | Luxr family transcriptional regulator, dicarboxylate transport regulator; May act as a transcriptional regulator of dctA | Glutamate decarboxylase a, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | 0.749 |
dctR | gadB | b3507 | b1493 | Luxr family transcriptional regulator, dicarboxylate transport regulator; May act as a transcriptional regulator of dctA | Glutamate decarboxylase b, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | 0.665 |
dctR | gadC | b3507 | b1492 | Luxr family transcriptional regulator, dicarboxylate transport regulator; May act as a transcriptional regulator of dctA | Glutamate:gamma-aminobutyric acid antiporter; Involved in glutamate-dependent acid resistance. Imports glutamate inside the cell while simultaneously exporting to the periplasm the GABA produced by GadA and GadB. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | 0.610 |
dctR | gadE | b3507 | b3512 | Luxr family transcriptional regulator, dicarboxylate transport regulator; May act as a transcriptional regulator of dctA | Luxr family transcriptional regulator, glutamate-dependent acid resistance regulator; Regulates the expression of several genes involved in acid resistance. Required for the expression of gadA and gadBC, among others, regardless of media or growth conditions. Binds directly to the 20 bp GAD box found in the control regions of both loci | 0.565 |
dctR | gadW | b3507 | b3515 | Luxr family transcriptional regulator, dicarboxylate transport regulator; May act as a transcriptional regulator of dctA | Arac family transcriptional regulator, glutamate-dependent acid resistance regulator; Depending on the conditions (growth phase and medium), acts as a positive or negative regulator of gadA and gadBC. Repression occurs directly or via the repression of the expression of gadX. Activation occurs directly by the binding of GadW to the gadA and gadBC promoters | 0.805 |
dctR | gadX | b3507 | b3516 | Luxr family transcriptional regulator, dicarboxylate transport regulator; May act as a transcriptional regulator of dctA | Arac family transcriptional regulator, glutamate-dependent acid resistance regulator; Positively regulates the expression of about fifteen genes involved in acid resistance such as gadA, gadB and gadC. Depending on the conditions (growth phase and medium), can repress gadW | 0.816 |
dctR | hdeA | b3507 | b3510 | Luxr family transcriptional regulator, dicarboxylate transport regulator; May act as a transcriptional regulator of dctA | Stress response protein acid-resistance protein; Required for optimal acid stress protection. Exhibits a chaperone-like activity only at pH below 3 by suppressing non- specifically the aggregation of denaturated periplasmic proteins. Important for survival of enteric bacteria in the acidic environment of the host stomach. Also promotes the solubilization at neutral pH of proteins that had aggregated in their presence at acidic pHs. May cooperate with other periplasmic chaperones such as DegP and SurA | 0.799 |
dctR | hdeB | b3507 | b3509 | Luxr family transcriptional regulator, dicarboxylate transport regulator; May act as a transcriptional regulator of dctA | Required for optimal acid stress protection, which is important for survival of enteric bacteria in the acidic environment of the host stomach. Exhibits a chaperone-like activity at acidic pH by preventing the aggregation of many different periplasmic proteins | 0.678 |
dctR | hdeD | b3507 | b3511 | Luxr family transcriptional regulator, dicarboxylate transport regulator; May act as a transcriptional regulator of dctA | annotation not available | 0.893 |
dctR | slp | b3507 | b3506 | Luxr family transcriptional regulator, dicarboxylate transport regulator; May act as a transcriptional regulator of dctA | Outer membrane lipoprotein; The induction of Slp may help to stabilize the outer membrane during carbon starvation and stationary phase | 0.963 |
gadA | dctR | b3517 | b3507 | Glutamate decarboxylase a, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | Luxr family transcriptional regulator, dicarboxylate transport regulator; May act as a transcriptional regulator of dctA | 0.749 |
gadA | gadB | b3517 | b1493 | Glutamate decarboxylase a, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | Glutamate decarboxylase b, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | 0.999 |
gadA | gadC | b3517 | b1492 | Glutamate decarboxylase a, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | Glutamate:gamma-aminobutyric acid antiporter; Involved in glutamate-dependent acid resistance. Imports glutamate inside the cell while simultaneously exporting to the periplasm the GABA produced by GadA and GadB. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | 0.999 |
gadA | gadE | b3517 | b3512 | Glutamate decarboxylase a, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | Luxr family transcriptional regulator, glutamate-dependent acid resistance regulator; Regulates the expression of several genes involved in acid resistance. Required for the expression of gadA and gadBC, among others, regardless of media or growth conditions. Binds directly to the 20 bp GAD box found in the control regions of both loci | 0.986 |
gadA | gadW | b3517 | b3515 | Glutamate decarboxylase a, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | Arac family transcriptional regulator, glutamate-dependent acid resistance regulator; Depending on the conditions (growth phase and medium), acts as a positive or negative regulator of gadA and gadBC. Repression occurs directly or via the repression of the expression of gadX. Activation occurs directly by the binding of GadW to the gadA and gadBC promoters | 0.934 |
gadA | gadX | b3517 | b3516 | Glutamate decarboxylase a, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | Arac family transcriptional regulator, glutamate-dependent acid resistance regulator; Positively regulates the expression of about fifteen genes involved in acid resistance such as gadA, gadB and gadC. Depending on the conditions (growth phase and medium), can repress gadW | 0.961 |
gadA | hdeA | b3517 | b3510 | Glutamate decarboxylase a, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | Stress response protein acid-resistance protein; Required for optimal acid stress protection. Exhibits a chaperone-like activity only at pH below 3 by suppressing non- specifically the aggregation of denaturated periplasmic proteins. Important for survival of enteric bacteria in the acidic environment of the host stomach. Also promotes the solubilization at neutral pH of proteins that had aggregated in their presence at acidic pHs. May cooperate with other periplasmic chaperones such as DegP and SurA | 0.985 |
gadA | hdeB | b3517 | b3509 | Glutamate decarboxylase a, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | Required for optimal acid stress protection, which is important for survival of enteric bacteria in the acidic environment of the host stomach. Exhibits a chaperone-like activity at acidic pH by preventing the aggregation of many different periplasmic proteins | 0.965 |
gadA | hdeD | b3517 | b3511 | Glutamate decarboxylase a, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | annotation not available | 0.972 |
gadA | slp | b3517 | b3506 | Glutamate decarboxylase a, plp-dependent; Converts glutamate to gamma-aminobutyrate (GABA), consuming one intracellular proton in the reaction. The gad system helps to maintain a near-neutral intracellular pH when cells are exposed to extremely acidic conditions. The ability to survive transit through the acidic conditions of the stomach is essential for successful colonization of the mammalian host by commensal and pathogenic bacteria | Outer membrane lipoprotein; The induction of Slp may help to stabilize the outer membrane during carbon starvation and stationary phase | 0.983 |