ALPHASUITEATLASTM
NLRP3 · Q96P20Homo sapiens
PROTEIN OVERVIEW

NLRP3NACHT, LRR and PYD domains-containing protein 3

Q96P20Homo sapiensReviewed · UniProt

Sensor component of the NLRP3 inflammasome, which mediates inflammasome activation in response to defects in membrane integrity, leading to secretion of inflammatory cytokines IL1B and IL18 and pyroptosis.

Sequence1036 aa
Source mass118.17 kDa
Recorded PDB entries24
Isoforms listed6

UniProt locations Cytoplasm, cytosol · Inflammasome · Cytoplasm, cytoskeleton, microtubule organizing center · Golgi apparatus membrane · Endoplasmic reticulum · Mitochondrion · Secreted · Nucleus

01

Function

Sensor component of the NLRP3 inflammasome, which mediates inflammasome activation in response to defects in membrane integrity, leading to secretion of inflammatory cytokines IL1B and IL18 and pyroptosis [12, 18, 17, 28, 44, 41, 43, 47, 48, 49, 50, 51, 70, 54, 53, 55, 58, 76, 67, 66]. In response to pathogens and other damage-associated signals that affect the integrity of membranes, initiates the formation of the inflammasome polymeric complex composed of NLRP3, CASP1 and PYCARD/ASC [12, 18, 69, 47, 70, 54, 53, 55, 75, 76]. Recruitment of pro-caspase-1 (proCASP1) to the NLRP3 inflammasome promotes caspase-1 (CASP1) activation, which subsequently cleaves and activates inflammatory cytokines IL1B and IL18 and gasdermin-D (GSDMD), promoting cytokine secretion and pyroptosis [28, 47, 70, 54, 53, 55].

Activation of NLRP3 inflammasome is also required for HMGB1 secretion; stimulating inflammatory responses [22]. Involved in the homeostatic wound healing response to tissue injury, a multistep cascade that guides neutrophil migration to necrotic sites while avoiding collateral damage of healthy tissues. ATP released from necrotic cells triggers activation of NLRP3 inflammasome through P2RX7 signaling leading to neutrophil adhesion to the vascular endothelium close to the injury site (By similarity).

Under resting conditions, ADP-bound NLRP3 is autoinhibited [72]. NLRP3 activation stimuli include extracellular ATP, nigericin, reactive oxygen species, crystals of monosodium urate or cholesterol, amyloid-beta fibers, environmental or industrial particles and nanoparticles, such as asbestos, silica, aluminum salts, cytosolic dsRNA, etc [12, 18, 17, 19, 26]. Almost all stimuli trigger intracellular K(+) efflux (By similarity).

These stimuli lead to membrane perturbation and activation of NLRP3 (By similarity). Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes and formation of an active inflammasome complex [76, 64]. Associates with dTGN vesicle membranes by binding to phosphatidylinositol 4-phosphate (PtdIns4P) [48, 56].

Shows ATPase activity [15]

By similarityExperimental evidence 28 publications
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000250",
          "source": "UniProtKB",
          "id": "Q8R4B8"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "16407889"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "17483456"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "18403674"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "18604214"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "19414800"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "22801494"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "23582325"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "23871209"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "25686105"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "27432880"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "27929086"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "28656979"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "28847925"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "30487600"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "30612879"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "31086327"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "31086329"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "31189953"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "33231615"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34133077"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34341353"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34554188"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "35114687"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "36142182"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "36442502"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "39173637"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "40250624"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "40450990"
        }
      ],
      "value": "Sensor component of the NLRP3 inflammasome, which mediates inflammasome activation in response to defects in membrane integrity, leading to secretion of inflammatory cytokines IL1B and IL18 and pyroptosis (PubMed:16407889, PubMed:18403674, PubMed:18604214, PubMed:23582325, PubMed:25686105, PubMed:27929086, PubMed:28656979, PubMed:28847925, PubMed:30487600, PubMed:30612879, PubMed:31086327, PubMed:31086329, PubMed:31189953, PubMed:33231615, PubMed:34133077, PubMed:34341353, PubMed:34512673, PubMed:36442502, PubMed:40250624, PubMed:40450990). In response to pathogens and other damage-associated signals that affect the integrity of membranes, initiates the formation of the inflammasome polymeric complex composed of NLRP3, CASP1 and PYCARD/ASC (PubMed:16407889, PubMed:18403674, PubMed:27432880, PubMed:28847925, PubMed:31189953, PubMed:33231615, PubMed:34133077, PubMed:34341353, PubMed:36142182, PubMed:36442502). Recruitment of pro-caspase-1 (proCASP1) to the NLRP3 inflammasome promotes caspase-1 (CASP1) activation, which subsequently cleaves and activates inflammatory cytokines IL1B and IL18 and gasdermin-D (GSDMD), promoting cytokine secretion and pyroptosis (PubMed:23582325, PubMed:28847925, PubMed:31189953, PubMed:33231615, PubMed:34133077, PubMed:34341353). Activation of NLRP3 inflammasome is also required for HMGB1 secretion; stimulating inflammatory responses (PubMed:22801494). Involved in the homeostatic wound healing response to tissue injury, a multistep cascade that guides neutrophil migration to necrotic sites while avoiding collateral damage of healthy tissues. ATP released from necrotic cells triggers activation of NLRP3 inflammasome through P2RX7 signaling leading to neutrophil adhesion to the vascular endothelium close to the injury site (By similarity). Under resting conditions, ADP-bound NLRP3 is autoinhibited (PubMed:35114687). NLRP3 activation stimuli include extracellular ATP, nigericin, reactive oxygen species, crystals of monosodium urate or cholesterol, amyloid-beta fibers, environmental or industrial particles and nanoparticles, such as asbestos, silica, aluminum salts, cytosolic dsRNA, etc (PubMed:16407889, PubMed:18403674, PubMed:18604214, PubMed:19414800, PubMed:23871209). Almost all stimuli trigger intracellular K(+) efflux (By similarity). These stimuli lead to membrane perturbation and activation of NLRP3 (By similarity). Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes and formation of an active inflammasome complex (PubMed:36442502, PubMed:39173637). Associates with dTGN vesicle membranes by binding to phosphatidylinositol 4-phosphate (PtdIns4P) (PubMed:30487600, PubMed:34554188). Shows ATPase activity (PubMed:17483456)"
    }
  ],
  "commentType": "FUNCTION"
}

Independently of inflammasome activation, regulates the differentiation of T helper 2 (Th2) cells and has a role in Th2 cell-dependent asthma and tumor growth (By similarity). During Th2 differentiation, required for optimal IRF4 binding to IL4 promoter and for IRF4-dependent IL4 transcription (By similarity). Binds to the consensus DNA sequence 5'-GRRGGNRGAG-3' (By similarity).

May also participate in the transcription of IL5, IL13, GATA3, CCR3, CCR4 and MAF (By similarity)

By similarity
Evidence & references
  • ECO:0000250 UniProtKB:Q8R4B8
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000250",
          "source": "UniProtKB",
          "id": "Q8R4B8"
        }
      ],
      "value": "Independently of inflammasome activation, regulates the differentiation of T helper 2 (Th2) cells and has a role in Th2 cell-dependent asthma and tumor growth (By similarity). During Th2 differentiation, required for optimal IRF4 binding to IL4 promoter and for IRF4-dependent IL4 transcription (By similarity). Binds to the consensus DNA sequence 5'-GRRGGNRGAG-3' (By similarity). May also participate in the transcription of IL5, IL13, GATA3, CCR3, CCR4 and MAF (By similarity)"
    }
  ],
  "commentType": "FUNCTION"
}

Catalytic activity

ATP + H2O = ADP + phosphate + H(+)

Evidence
Complete source annotation
{
  "commentType": "CATALYTIC ACTIVITY",
  "reaction": {
    "name": "ATP + H2O = ADP + phosphate + H(+)",
    "reactionCrossReferences": [
      {
        "database": "Rhea",
        "id": "RHEA:13065"
      },
      {
        "database": "ChEBI",
        "id": "CHEBI:15377"
      },
      {
        "database": "ChEBI",
        "id": "CHEBI:15378"
      },
      {
        "database": "ChEBI",
        "id": "CHEBI:30616"
      },
      {
        "database": "ChEBI",
        "id": "CHEBI:43474"
      },
      {
        "database": "ChEBI",
        "id": "CHEBI:456216"
      }
    ],
    "evidences": [
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "17483456"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "31086327"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "31086329"
      }
    ]
  },
  "physiologicalReactions": [
    {
      "directionType": "left-to-right",
      "reactionCrossReference": {
        "database": "Rhea",
        "id": "RHEA:13066"
      },
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "17483456"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "31086327"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "31086329"
        }
      ]
    }
  ]
}

Activity regulation

Under resting conditions, NLRP3 binds ADP and is autoinhibited [72]. Inactive NLRP3 forms homodecameric double-ring cages that hide pyrin domains within NACHT-LRR rings to avoid premature activation [72]. NLRP3 activation stimuli include extracellular ATP, nigericin, reactive oxygen species, crystals of monosodium urate or cholesterol, amyloid-beta fibers, environmental or industrial particles and nanoparticles, such as asbestos, silica, aluminum salts, cytosolic dsRNA, etc [12, 18, 17, 19, 72].

Activated upon human coronavirus SARS-CoV-2 infection [54, 53]. Almost all stimuli trigger intracellular K(+) efflux (By similarity). These stimuli lead to membrane perturbations that induce activation of NLRP3 (By similarity).

Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes and recruitment of PYCARD/ASC for the formation of an active inflammasome complex [48, 49, 76, 64]. NEK7-activated NLRP3 forms a disk-shaped inflammasome [76]. NLRP3 and PYCARD/ASC interact via their respective pyrin domains; interaction initiates speck formation (nucleation) which greatly enhances further addition of soluble PYCARD/ASC molecules to the speck in a prion-like polymerization process [33, 69, 46, 74, 75, 76].

Clustered PYCARD/ASC nucleates the formation of CASP1 filaments through the interaction of their respective CARD domains, acting as a platform for CASP1 polymerization and activation [33]. Active CASP1 then processes IL1B and IL18 precursors, leading to the release of mature cytokines in the extracellular milieu and inflammatory response [33]. NLRP3 inflammasome assembly is inhibited by IRGM, which impedes NLRP3 oligomerization [49].

NLRP3 inflammasome is activated by cyclic di-AMP (c-di-AMP) and cyclic di-GMP (c-di-GMP), which enhance polymerization [29]. NLRP3 inflammasome is inhibited by cyclic AMP (cAMP), which directly binds NLRP3; inhibition is relieved by calcium-sensing receptor CASR, which inhibits production of cAMP [52]. Specifically inhibited by sulfonylurea MCC950 (also named CP-456,773, CRID3), a potent and specific small-molecule inhibitor of the NLRP3 inflammasome that acts by preventing ATP hydrolysis [44, 50, 51, 71, 72, 73]

By similarityExperimental evidence 23 publications
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000250",
          "source": "UniProtKB",
          "id": "Q8R4B8"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "16407889"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "18403674"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "18604214"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "19414800"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "24008845"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "24630722"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "25686105"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "27432880"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "28465465"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "30487600"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "30612879"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "31086327"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "31086329"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "32843625"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "33231615"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34133077"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34687713"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "35114687"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "35254907"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "35559676"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "36142182"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "36442502"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "39173637"
        }
      ],
      "value": "Under resting conditions, NLRP3 binds ADP and is autoinhibited (PubMed:35114687). Inactive NLRP3 forms homodecameric double-ring cages that hide pyrin domains within NACHT-LRR rings to avoid premature activation (PubMed:35114687). NLRP3 activation stimuli include extracellular ATP, nigericin, reactive oxygen species, crystals of monosodium urate or cholesterol, amyloid-beta fibers, environmental or industrial particles and nanoparticles, such as asbestos, silica, aluminum salts, cytosolic dsRNA, etc (PubMed:16407889, PubMed:18403674, PubMed:18604214, PubMed:19414800, PubMed:35114687). Activated upon human coronavirus SARS-CoV-2 infection (PubMed:33231615, PubMed:34133077). Almost all stimuli trigger intracellular K(+) efflux (By similarity). These stimuli lead to membrane perturbations that induce activation of NLRP3 (By similarity). Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes and recruitment of PYCARD/ASC for the formation of an active inflammasome complex (PubMed:30487600, PubMed:30612879, PubMed:36442502, PubMed:39173637). NEK7-activated NLRP3 forms a disk-shaped inflammasome (PubMed:36442502). NLRP3 and PYCARD/ASC interact via their respective pyrin domains; interaction initiates speck formation (nucleation) which greatly enhances further addition of soluble PYCARD/ASC molecules to the speck in a prion-like polymerization process (PubMed:24630722, PubMed:27432880, PubMed:28465465, PubMed:35559676, PubMed:36142182, PubMed:36442502). Clustered PYCARD/ASC nucleates the formation of CASP1 filaments through the interaction of their respective CARD domains, acting as a platform for CASP1 polymerization and activation (PubMed:24630722). Active CASP1 then processes IL1B and IL18 precursors, leading to the release of mature cytokines in the extracellular milieu and inflammatory response (PubMed:24630722). NLRP3 inflammasome assembly is inhibited by IRGM, which impedes NLRP3 oligomerization (PubMed:30612879). NLRP3 inflammasome is activated by cyclic di-AMP (c-di-AMP) and cyclic di-GMP (c-di-GMP), which enhance polymerization (PubMed:24008845). NLRP3 inflammasome is inhibited by cyclic AMP (cAMP), which directly binds NLRP3; inhibition is relieved by calcium-sensing receptor CASR, which inhibits production of cAMP (PubMed:32843625). Specifically inhibited by sulfonylurea MCC950 (also named CP-456,773, CRID3), a potent and specific small-molecule inhibitor of the NLRP3 inflammasome that acts by preventing ATP hydrolysis (PubMed:25686105, PubMed:31086327, PubMed:31086329, PubMed:34687713, PubMed:35114687, PubMed:35254907)"
    }
  ],
  "commentType": "ACTIVITY REGULATION"
}

GO functions & biological processes

protein bindingenablesUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0005515 · evidence & context
  • ECO:0000353 PMID:11786556 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0005737", "relation": "occurs_in"}]}]
  • ECO:0000353 PMID:15020601 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0005737", "relation": "occurs_in"}]}]
  • ECO:0000353 PMID:19158675 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0005737", "relation": "occurs_in"}]}]
  • ECO:0000353 PMID:24630722 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0005737", "relation": "occurs_in"}]}]
  • ECO:0000353 PMID:28229991 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0005737", "relation": "occurs_in"}]}]
  • ECO:0000353 PMID:31421660 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0005737", "relation": "occurs_in"}]}]
  • ECO:0000353 PMID:34341353 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "P0DTC9"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0005737", "relation": "occurs_in"}]}]
  • ECO:0000353 PMID:34341353 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0005737", "relation": "occurs_in"}]}]
  • ECO:0000353 PMID:34589402 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0005737", "relation": "occurs_in"}]}]
  • ECO:0000353 PMID:38593810 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0005737", "relation": "occurs_in"}]}]
protein bindingenablesUniProtKB:Q96P20
GO
GO:0005515 · evidence & context
  • ECO:0000353 PMID:15030775 ↗ IPI · HGNC-UCL · 20060525
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
  • ECO:0000353 PMID:15030775 ↗ IPI · HGNC-UCL · 20060525
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9Y2G2"}]}]
  • ECO:0000353 PMID:19337385 ↗ IPI · BHF-UCL · 20110124
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9HC29"}]}]
  • ECO:0000353 PMID:22461501 ↗ IPI · UniProt · 20150731
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q96PP8"}]}]
  • ECO:0000353 PMID:22801494 ↗ IPI · UniProt · 20130416
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "P19525"}]}]
  • ECO:0000353 PMID:22801494 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "P19525"}]}]
  • ECO:0000353 PMID:23582325 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q7Z434"}]}]
  • ECO:0000353 PMID:23809162 ↗ IPI · UniProt · 20191205
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "P32121"}]}]
  • ECO:0000353 PMID:23871209 ↗ IPI · UniProt · 20180222
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9H6R0"}]}]
  • ECO:0000353 PMID:24531343 ↗ IPI · UniProt · 20180903
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "W6CW81"}]}]
  • ECO:0000353 PMID:26347139 ↗ IPI · UniProt · 20151029
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "O15553"}]}]
  • ECO:0000353 PMID:26814970 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8TDX7"}]}]
  • ECO:0000353 PMID:26814970 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ES74"}]}]
  • ECO:0000353 PMID:28137891 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9Y2G2-1"}]}]
  • ECO:0000353 PMID:29408806 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9Y2G2-1"}]}]
  • ECO:0000353 PMID:29408806 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9Y2G2-5"}]}]
  • ECO:0000353 PMID:32814053 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "P27797"}]}]
  • ECO:0000353 PMID:32814053 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "P36957"}]}]
  • ECO:0000353 PMID:32814053 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8TDX7"}]}]
  • ECO:0000353 PMID:34341353 ↗ IPI · UniProt · 20210901
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "P0DTC9"}]}]
  • ECO:0000353 PMID:39225180 ↗ IPI · UniProt · 20250131
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "P0DTC9"}]}]
  • ECO:0000353 PMID:39225180 ↗ IPI · UniProt · 20250131
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "P11142"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "P13473"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "Q96GR4"}]}]
  • ECO:0000353 PMID:39225180 ↗ IPI · UniProt · 20250131
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q96I13"}]}]
protein bindingenablesUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0005515 · evidence & context
  • ECO:0000353 PMID:31231549 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q80H93"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0005802", "relation": "occurs_in"}]}, {"connectedXrefs": [{"db": "GO", "id": "0031410", "relation": "occurs_in"}]}]
protein bindingenablesUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0005515 · evidence & context
  • ECO:0000353 PMID:34341353 ↗ IPI · UniProt · 20210901
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0072559", "relation": "part_of"}]}]
ATP bindingenablesUniProtKB:Q96P20
GO
GO:0005524 · evidence & context
All recorded function and process assertions (50)
ATP hydrolysis activityenablesUniProtKB:Q96P20
GO
GO:0016887 · evidence & context
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00043426"}]}]
  • ECO:0000314 PMID:17483456 ↗ IDA · UniProt · 20221027
    qualifier: enables
  • ECO:0000314 PMID:31086327 ↗ IDA · UniProt · 20221028
    qualifier: enables
  • ECO:0000314 PMID:31086329 ↗ IDA · UniProt · 20221028
    qualifier: enables
protein-macromolecule adaptor activityenablesUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0030674 · evidence & context
  • ECO:0000314 PMID:1189953 ↗ IDA · UniProt · 20240124
    qualifier: enables
    extensions: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8TDX7", "relation": "has_input"}, {"db": "GO", "id": "0140677", "relation": "directly_positively_regulates"}]}]
signaling adaptor activityenablesUniProtKB:Q96P20
GO
GO:0035591 · evidence & context
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00090724"}]}]
  • ECO:0000314 PMID:35114687 ↗ IDA · UniProt · 20221028
    qualifier: enables
  • ECO:0000314 PMID:35254907 ↗ IDA · UniProt · 20221028
    qualifier: enables
signaling adaptor activityenablesUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0035591 · evidence & context
  • ECO:0000314 PMID:27432880 ↗ IDA · UniProt · 20221102
    qualifier: enables
    extensions: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3", "relation": "has_input"}]}]
  • ECO:0000314 PMID:35559676 ↗ IDA · UniProt · 20221028
    qualifier: enables
    extensions: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3", "relation": "has_input"}]}]
identical protein bindingenablesUniProtKB:Q96P20
GO
GO:0042802 · evidence & context
  • ECO:0000353 PMID:23582325 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q96P20"}]}]
  • ECO:0000353 PMID:24630722 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q96P20"}]}]
  • ECO:0000353 PMID:29408806 ↗ IPI · IntAct · 20260725
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q96P20"}]}]
peptidoglycan bindingenablesUniProtKB:Q96P20
GO
GO:0042834 · evidence & context
ADP bindingenablesUniProtKB:Q96P20
GO
GO:0043531 · evidence & context
sequence-specific DNA bindingenablesUniProtKB:Q96P20
GO
GO:0043565 · evidence & context
  • ECO:0000250 GO_REF:0000024 ISS · UniProt · 20150901
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8R4B8"}]}]
  • ECO:0000318 GO_REF:0000033 IBA · GO_Central · 20220106
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "MGI", "id": "MGI:2653833"}]}, {"connectedXrefs": [{"db": "PANTHER", "id": "PTN000648032"}]}]
molecular adaptor activityenablesUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0060090 · evidence & context
  • ECO:0000314 PMID:1189953 ↗ IDA · UniProt · 20250121
    qualifier: enables
    extensions: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8TDX7", "relation": "has_input"}, {"db": "GO", "id": "0140677", "relation": "directly_positively_regulates"}]}]
phosphatidylinositol-4-phosphate bindingenablesUniProtKB:Q96P20
GO
GO:0070273 · evidence & context
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00091843"}]}]
  • ECO:0000314 PMID:30487600 ↗ IDA · UniProt · 20221103
    qualifier: enables
DNA-binding transcription factor bindingenablesUniProtKB:Q96P20
GO
GO:0140297 · evidence & context
  • ECO:0000250 GO_REF:0000024 ISS · UniProt · 20210415
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8R4B8"}]}]
  • ECO:0000318 GO_REF:0000033 IBA · GO_Central · 20220106
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "MGI", "id": "MGI:2653833"}]}, {"connectedXrefs": [{"db": "PANTHER", "id": "PTN000648032"}]}]
molecular sensor activityenablesUniProtKB:Q96P20
GO
GO:0140299 · evidence & context
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: enables
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00026335"}]}]
  • ECO:0000314 PMID:16407889 ↗ IDA · UniProt · 20221028
    qualifier: enables
  • ECO:0000314 PMID:18403674 ↗ IDA · UniProt · 20221028
    qualifier: enables
  • ECO:0000314 PMID:18604214 ↗ IDA · UniProt · 20221028
    qualifier: enables
cysteine-type endopeptidase activator activityenablesUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0140608 · evidence & context
  • ECO:0000314 PMID:16407889 ↗ IDA · UniProt · 20260122
    qualifier: enables
    extensions: [{"connectedXrefs": [{"db": "UniProtKB", "id": "P29466", "relation": "has_input"}]}]
cysteine-type endopeptidase activator activityenablesUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0140608 · evidence & context
  • ECO:0000314 PMID:31189953 ↗ IDA · UniProt · 20221109
    qualifier: enables
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0044546", "relation": "part_of"}, {"db": "GO", "id": "0051604", "relation": "part_of"}, {"db": "UniProtKB", "id": "P29466", "relation": "has_input"}, {"db": "GO", "id": "0004197", "relation": "directly_positively_regulates"}]}]
molecular condensate scaffold activityenablesUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0140693 · evidence & context
  • ECO:0000314 PMID:35114687 ↗ IDA · UniProt · 20221110
    qualifier: enables
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0044546", "relation": "part_of"}]}]
phosphatidylinositol phosphate bindingenablesUniProtKB:Q96P20
GO
GO:1901981 · evidence & context
pattern recognition receptor signaling pathwayinvolved inUniProtKB:Q96P20
GO
GO:0002221 · evidence & context
negative regulation of acute inflammatory responseinvolved inUniProtKB:Q96P20
GO
GO:0002674 · evidence & context
positive regulation of type 2 immune responseinvolved inUniProtKB:Q96P20
GO
GO:0002830 · evidence & context
  • ECO:0000250 GO_REF:0000024 ISS · UniProt · 20150901
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8R4B8"}]}]
apoptotic processinvolved inUniProtKB:Q96P20
GO
GO:0006915 · evidence & context
defense responseinvolved inUniProtKB:Q96P20
GO
GO:0006952 · evidence & context
inflammatory responseinvolved inUniProtKB:Q96P20
GO
GO:0006954 · evidence & context
signal transductioninvolved inUniProtKB:Q96P20
GO
GO:0007165 · evidence & context
osmosensory signaling pathwayinvolved inUniProtKB:Q96P20
GO
GO:0007231 · evidence & context
detection of biotic stimulusinvolved inUniProtKB:Q96P20
GO
GO:0009595 · evidence & context
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00034390"}]}]
  • ECO:0000304 PMID:15967716 ↗ TAS · HGNC-UCL · 20051202
    qualifier: involved_in
  • ECO:0000314 PMID:18604214 ↗ IDA · UniProt · 20221027
    qualifier: involved_in
response to virusinvolved inUniProtKB:Q96P20
GO
GO:0009615 · evidence & context
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00026492"}]}]
negative regulation of interleukin-1 beta productioninvolved inUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0032691 · evidence & context
  • ECO:0000315 PMID:12483741 ↗ IMP · BHF-UCL · 20130111
    qualifier: involved_in
    extensions: [{"connectedXrefs": [{"db": "CL", "id": "0000576", "relation": "occurs_in"}]}]
positive regulation of interleukin-1 beta productioninvolved inUniProtKB:Q96P20
GO
GO:0032731 · evidence & context
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00033916"}]}]
  • ECO:0000314 PMID:15030775 ↗ IDA · HGNC-UCL · 20060525
    qualifier: involved_in
  • ECO:0000314 PMID:16407889 ↗ IDA · UniProt · 20221027
    qualifier: involved_in
  • ECO:0000314 PMID:17483456 ↗ IDA · UniProt · 20221027
    qualifier: involved_in
  • ECO:0000314 PMID:18403674 ↗ IDA · UniProt · 20221027
    qualifier: involved_in
  • ECO:0000314 PMID:18604214 ↗ IDA · UniProt · 20221027
    qualifier: involved_in
  • ECO:0000314 PMID:23582325 ↗ IDA · UniProt · 20221103
    qualifier: involved_in
  • ECO:0000314 PMID:25686105 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000315 PMID:28847925 ↗ IMP · UniProt · 20180905
    qualifier: involved_in
  • ECO:0000314 PMID:30487600 ↗ IDA · UniProt · 20221103
    qualifier: involved_in
  • ECO:0000314 PMID:31086327 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:31086329 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:31189953 ↗ IDA · UniProt · 20221102
    qualifier: involved_in
positive regulation of interleukin-4 productioninvolved inUniProtKB:Q96P20
GO
GO:0032753 · evidence & context
  • ECO:0000250 GO_REF:0000024 ISS · UniProt · 20150901
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8R4B8"}]}]
NLRP3 inflammasome complex assemblyinvolved inUniProtKB:Q96P20
GO
GO:0044546 · evidence & context
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00086550"}]}]
  • ECO:0000314 PMID:17483456 ↗ IDA · UniProt · 20221027
    qualifier: involved_in
  • ECO:0000314 PMID:23582325 ↗ IDA · UniProt · 20221103
    qualifier: involved_in
  • ECO:0000314 PMID:25686105 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:27043286 ↗ IDA · UniProt · 20221108
    qualifier: involved_in
  • ECO:0000314 PMID:27432880 ↗ IDA · UniProt · 20221102
    qualifier: involved_in
  • ECO:0000314 PMID:28465465 ↗ IDA · UniProt · 20221107
    qualifier: involved_in
  • ECO:0000314 PMID:28656979 ↗ IDA · UniProt · 20221103
    qualifier: involved_in
  • ECO:0000314 PMID:28943315 ↗ IDA · UniProt · 20221107
    qualifier: involved_in
  • ECO:0000314 PMID:30487600 ↗ IDA · UniProt · 20221103
    qualifier: involved_in
  • ECO:0000314 PMID:31189953 ↗ IDA · UniProt · 20221102
    qualifier: involved_in
  • ECO:0000314 PMID:34554188 ↗ IDA · UniProt · 20221108
    qualifier: involved_in
  • ECO:0000314 PMID:34615873 ↗ IDA · UniProt · 20221107
    qualifier: involved_in
  • ECO:0000314 PMID:35114687 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:35254907 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:35559676 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:36442502 ↗ IDA · UniProt · 20221221
    qualifier: involved_in
  • ECO:0000314 PMID:39173637 ↗ IDA · UniProt · 20240925
    qualifier: involved_in
NLRP3 inflammasome complex assemblyinvolved inUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0044546 · evidence & context
  • ECO:0000314 PMID:33231615 ↗ IDA · UniProt · 20210628
    qualifier: involved_in
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0032612", "relation": "directly_positively_regulates"}, {"db": "GO", "id": "0002437", "relation": "directly_positively_regulates"}]}]
positive regulation of T-helper 2 cell differentiationinvolved inUniProtKB:Q96P20
GO
GO:0045630 · evidence & context
  • ECO:0000250 GO_REF:0000024 ISS · UniProt · 20150901
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8R4B8"}]}]
positive regulation of transcription by RNA polymerase IIinvolved inUniProtKB:Q96P20
GO
GO:0045944 · evidence & context
  • ECO:0000250 GO_REF:0000024 ISS · UniProt · 20150901
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8R4B8"}]}]
regulation of inflammatory responseinvolved inUniProtKB:Q96P20
GO
GO:0050727 · evidence & context
  • ECO:0000318 GO_REF:0000033 IBA · GO_Central · 20230112
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "MGI", "id": "MGI:2141990"}]}, {"connectedXrefs": [{"db": "MGI", "id": "MGI:2444084"}]}, {"connectedXrefs": [{"db": "MGI", "id": "MGI:2653833"}]}, {"connectedXrefs": [{"db": "MGI", "id": "MGI:2676630"}]}, {"connectedXrefs": [{"db": "PANTHER", "id": "PTN000647852"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "P59044"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "P59046"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "Q96P20"}]}]
negative regulation of inflammatory responseinvolved inUniProtKB:Q96P20
GO
GO:0050728 · evidence & context
positive regulation of inflammatory responseinvolved inUniProtKB:Q96P20
GO
GO:0050729 · evidence & context
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00045046"}]}]
  • ECO:0000314 PMID:25686105 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0005547 PMID:29255148 ↗ NAS · ComplexPortal · 20250904
    qualifier: involved_in
  • ECO:0000314 PMID:31086327 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:31086329 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:31189953 ↗ IDA · UniProt · 20221102
    qualifier: involved_in
  • ECO:0000314 PMID:35114687 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:35254907 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:35559676 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
protein homooligomerizationinvolved inUniProtKB:Q96P20
GO
GO:0051260 · evidence & context
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00089314"}]}]
  • ECO:0000314 PMID:35114687 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:35254907 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:35559676 ↗ IDA · UniProt · 20221028
    qualifier: involved_in
  • ECO:0000314 PMID:36442502 ↗ IDA · UniProt · 20221221
    qualifier: involved_in
protein maturationinvolved inUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0051604 · evidence & context
  • ECO:0000314 PMID:31189953 ↗ IDA · UniProt · 20221109
    qualifier: involved_in
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0044546", "relation": "part_of"}]}]
pyroptotic inflammatory responseinvolved inUniProtKB:Q96P20
GO
GO:0070269 · evidence & context
cellular response to lipopolysaccharideinvolved inUniProtKB:Q96P20
GO
GO:0071222 · evidence & context
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00092913"}]}]
  • ECO:0000314 PMID:28847925 ↗ IDA · UniProt · 20180917
    qualifier: involved_in
cellular response to lipopolysaccharideinvolved inUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0071222 · evidence & context
  • ECO:0000315 PMID:12483741 ↗ IMP · BHF-UCL · 20130111
    qualifier: involved_in
    extensions: [{"connectedXrefs": [{"db": "CL", "id": "0000576", "relation": "occurs_in"}]}]
cellular response to virusinvolved inUniProtKB:Q96P20 · Context-qualified assertion; see evidence
GO
GO:0098586 · evidence & context
  • ECO:0000314 PMID:33231615 ↗ IDA · UniProt · 20210628
    qualifier: involved_in
    extensions: [{"connectedXrefs": [{"db": "GO", "id": "0044546", "relation": "directly_positively_regulates"}]}]
negative regulation of non-canonical NF-kappaB signal transductioninvolved inUniProtKB:Q96P20
GO
GO:1901223 · evidence & context
  • ECO:0000318 GO_REF:0000033 IBA · GO_Central · 20170512
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "PANTHER", "id": "PTN000648032"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "Q96P20"}]}]
  • ECO:0000314 PMID:14662828 ↗ IDA · HGNC-UCL · 20060526
    qualifier: involved_in
positive regulation of non-canonical NF-kappaB signal transductioninvolved inUniProtKB:Q96P20
GO
GO:1901224 · evidence & context
  • ECO:0000353 PMID:15817483 ↗ IPI · UniProt · 20221125
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q9ULZ3"}]}]
positive regulation of T-helper 2 cell cytokine productioninvolved inUniProtKB:Q96P20
GO
GO:2000553 · evidence & context
  • ECO:0000250 GO_REF:0000024 ISS · UniProt · 20150901
    qualifier: involved_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8R4B8"}]}]
02

Names & Taxonomy

Recommended name
NACHT, LRR and PYD domains-containing protein 3
Gene
NLRP3
Accession / entry
Q96P20 · NLRP3_HUMAN
Species
Homo sapiens · NCBI 9606
Recorded aliases
Angiotensin/vasopressin receptor AII/AVP-like · C1orf7 · CIAS1 · CLR1.1 · Caterpiller protein 1.1 · Cold-induced autoinflammatory syndrome 1 protein · Cryopyrin · NALP3 · PYPAF1 · PYRIN-containing APAF1-like protein 1
Full taxonomy & recorded names

Eukaryota → Metazoa → Chordata → Craniata → Vertebrata → Euteleostomi → Mammalia → Eutheria → Euarchontoglires → Primates → Haplorrhini → Catarrhini → Hominidae → Homo

{
  "names": {
    "recommendedName": {
      "fullName": {
        "evidences": [
          {
            "evidenceCode": "ECO:0000305"
          }
        ],
        "value": "NACHT, LRR and PYD domains-containing protein 3"
      },
      "ecNumbers": [
        {
          "evidences": [
            {
              "evidenceCode": "ECO:0000269",
              "source": "PubMed",
              "id": "17483456"
            },
            {
              "evidenceCode": "ECO:0000269",
              "source": "PubMed",
              "id": "31086327"
            },
            {
              "evidenceCode": "ECO:0000269",
              "source": "PubMed",
              "id": "31086329"
            }
          ],
          "value": "3.6.4.-"
        }
      ]
    },
    "alternativeNames": [
      {
        "fullName": {
          "value": "Angiotensin/vasopressin receptor AII/AVP-like"
        }
      },
      {
        "fullName": {
          "evidences": [
            {
              "evidenceCode": "ECO:0000303",
              "source": "PubMed",
              "id": "14662828"
            }
          ],
          "value": "Caterpiller protein 1.1"
        },
        "shortNames": [
          {
            "evidences": [
              {
                "evidenceCode": "ECO:0000303",
                "source": "PubMed",
                "id": "14662828"
              }
            ],
            "value": "CLR1.1"
          }
        ]
      },
      {
        "fullName": {
          "evidences": [
            {
              "evidenceCode": "ECO:0000303",
              "source": "PubMed",
              "id": "11687797"
            }
          ],
          "value": "Cold-induced autoinflammatory syndrome 1 protein"
        }
      },
      {
        "fullName": {
          "evidences": [
            {
              "evidenceCode": "ECO:0000303",
              "source": "PubMed",
              "id": "14662828"
            }
          ],
          "value": "Cryopyrin"
        }
      },
      {
        "fullName": {
          "evidences": [
            {
              "evidenceCode": "ECO:0000303",
              "source": "PubMed",
              "id": "11786556"
            }
          ],
          "value": "PYRIN-containing APAF1-like protein 1"
        }
      }
    ]
  },
  "genes": [
    {
      "geneName": {
        "evidences": [
          {
            "evidenceCode": "ECO:0000303",
            "source": "PubMed",
            "id": "17907925"
          },
          {
            "evidenceCode": "ECO:0000312",
            "source": "HGNC",
            "id": "HGNC:16400"
          }
        ],
        "value": "NLRP3"
      },
      "synonyms": [
        {
          "evidences": [
            {
              "evidenceCode": "ECO:0000312",
              "source": "HGNC",
              "id": "HGNC:16400"
            }
          ],
          "value": "C1orf7"
        },
        {
          "evidences": [
            {
              "evidenceCode": "ECO:0000303",
              "source": "PubMed",
              "id": "11687797"
            }
          ],
          "value": "CIAS1"
        },
        {
          "evidences": [
            {
              "evidenceCode": "ECO:0000303",
              "source": "PubMed",
              "id": "12355493"
            }
          ],
          "value": "NALP3"
        },
        {
          "evidences": [
            {
              "evidenceCode": "ECO:0000303",
              "source": "PubMed",
              "id": "11786556"
            }
          ],
          "value": "PYPAF1"
        }
      ]
    }
  ]
}
03

Subcellular Location

UniProt locations and GO cellular-component assertions. Relations and contexts remain distinct; “part of” is not automatically a residence claim.

Cytoplasm, cytosolReported location

In macrophages, under resting conditions, mainly located in the cytosol and on membranes of various organelles, such as endoplasmic reticulum, mitochondria and Golgi: forms an inactive double-ring cage that is primarily localized on membranes (By similarity). Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes for the formation of an active inflammasome complex [64]. Recruited to dTGN vesicle membranes by binding to phosphatidylinositol 4-phosphate (PtdIns4P) [48]. After the induction of pyroptosis, inflammasome specks are released into the extracellular space where they can further promote IL1B processing and where they can be engulfed by macrophages [37]. Phagocytosis induces lysosomal damage and inflammasome activation in the recipient cells [37]. In the Th2 subset of CD4(+) helper T cells, mainly located in the nucleus (By similarity). Nuclear localization depends upon KPNA2 (By similarity). In the Th1 subset of CD4(+) helper T cells, mainly cytoplasmic (By similarity)

UniProt
Experimental evidence 4 publications
Evidence & references
InflammasomeReported location

In macrophages, under resting conditions, mainly located in the cytosol and on membranes of various organelles, such as endoplasmic reticulum, mitochondria and Golgi: forms an inactive double-ring cage that is primarily localized on membranes (By similarity). Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes for the formation of an active inflammasome complex [64]. Recruited to dTGN vesicle membranes by binding to phosphatidylinositol 4-phosphate (PtdIns4P) [48]. After the induction of pyroptosis, inflammasome specks are released into the extracellular space where they can further promote IL1B processing and where they can be engulfed by macrophages [37]. Phagocytosis induces lysosomal damage and inflammasome activation in the recipient cells [37]. In the Th2 subset of CD4(+) helper T cells, mainly located in the nucleus (By similarity). Nuclear localization depends upon KPNA2 (By similarity). In the Th1 subset of CD4(+) helper T cells, mainly cytoplasmic (By similarity)

UniProt
Experimental evidence 6 publications
Evidence & references
Cytoplasm, cytoskeleton, microtubule organizing centerReported location

In macrophages, under resting conditions, mainly located in the cytosol and on membranes of various organelles, such as endoplasmic reticulum, mitochondria and Golgi: forms an inactive double-ring cage that is primarily localized on membranes (By similarity). Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes for the formation of an active inflammasome complex [64]. Recruited to dTGN vesicle membranes by binding to phosphatidylinositol 4-phosphate (PtdIns4P) [48]. After the induction of pyroptosis, inflammasome specks are released into the extracellular space where they can further promote IL1B processing and where they can be engulfed by macrophages [37]. Phagocytosis induces lysosomal damage and inflammasome activation in the recipient cells [37]. In the Th2 subset of CD4(+) helper T cells, mainly located in the nucleus (By similarity). Nuclear localization depends upon KPNA2 (By similarity). In the Th1 subset of CD4(+) helper T cells, mainly cytoplasmic (By similarity)

UniProt
Experimental evidence 2 publications
Evidence & references
Golgi apparatus membraneReported location

In macrophages, under resting conditions, mainly located in the cytosol and on membranes of various organelles, such as endoplasmic reticulum, mitochondria and Golgi: forms an inactive double-ring cage that is primarily localized on membranes (By similarity). Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes for the formation of an active inflammasome complex [64]. Recruited to dTGN vesicle membranes by binding to phosphatidylinositol 4-phosphate (PtdIns4P) [48]. After the induction of pyroptosis, inflammasome specks are released into the extracellular space where they can further promote IL1B processing and where they can be engulfed by macrophages [37]. Phagocytosis induces lysosomal damage and inflammasome activation in the recipient cells [37]. In the Th2 subset of CD4(+) helper T cells, mainly located in the nucleus (By similarity). Nuclear localization depends upon KPNA2 (By similarity). In the Th1 subset of CD4(+) helper T cells, mainly cytoplasmic (By similarity)

UniProt
Experimental evidence 2 publications
Evidence & references
Endoplasmic reticulumReported location

In macrophages, under resting conditions, mainly located in the cytosol and on membranes of various organelles, such as endoplasmic reticulum, mitochondria and Golgi: forms an inactive double-ring cage that is primarily localized on membranes (By similarity). Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes for the formation of an active inflammasome complex [64]. Recruited to dTGN vesicle membranes by binding to phosphatidylinositol 4-phosphate (PtdIns4P) [48]. After the induction of pyroptosis, inflammasome specks are released into the extracellular space where they can further promote IL1B processing and where they can be engulfed by macrophages [37]. Phagocytosis induces lysosomal damage and inflammasome activation in the recipient cells [37]. In the Th2 subset of CD4(+) helper T cells, mainly located in the nucleus (By similarity). Nuclear localization depends upon KPNA2 (By similarity). In the Th1 subset of CD4(+) helper T cells, mainly cytoplasmic (By similarity)

UniProt
By similarity
Evidence & references
  • ECO:0000250 UniProtKB:Q8R4B8
MitochondrionReported location

In macrophages, under resting conditions, mainly located in the cytosol and on membranes of various organelles, such as endoplasmic reticulum, mitochondria and Golgi: forms an inactive double-ring cage that is primarily localized on membranes (By similarity). Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes for the formation of an active inflammasome complex [64]. Recruited to dTGN vesicle membranes by binding to phosphatidylinositol 4-phosphate (PtdIns4P) [48]. After the induction of pyroptosis, inflammasome specks are released into the extracellular space where they can further promote IL1B processing and where they can be engulfed by macrophages [37]. Phagocytosis induces lysosomal damage and inflammasome activation in the recipient cells [37]. In the Th2 subset of CD4(+) helper T cells, mainly located in the nucleus (By similarity). Nuclear localization depends upon KPNA2 (By similarity). In the Th1 subset of CD4(+) helper T cells, mainly cytoplasmic (By similarity)

UniProt
Experimental evidence 2 publications
Evidence & references
SecretedReported location

In macrophages, under resting conditions, mainly located in the cytosol and on membranes of various organelles, such as endoplasmic reticulum, mitochondria and Golgi: forms an inactive double-ring cage that is primarily localized on membranes (By similarity). Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes for the formation of an active inflammasome complex [64]. Recruited to dTGN vesicle membranes by binding to phosphatidylinositol 4-phosphate (PtdIns4P) [48]. After the induction of pyroptosis, inflammasome specks are released into the extracellular space where they can further promote IL1B processing and where they can be engulfed by macrophages [37]. Phagocytosis induces lysosomal damage and inflammasome activation in the recipient cells [37]. In the Th2 subset of CD4(+) helper T cells, mainly located in the nucleus (By similarity). Nuclear localization depends upon KPNA2 (By similarity). In the Th1 subset of CD4(+) helper T cells, mainly cytoplasmic (By similarity)

UniProt
Experimental evidence 1 publication
Evidence & references
NucleusReported location

In macrophages, under resting conditions, mainly located in the cytosol and on membranes of various organelles, such as endoplasmic reticulum, mitochondria and Golgi: forms an inactive double-ring cage that is primarily localized on membranes (By similarity). Upon activation, NLRP3 is transported to microtubule organizing center (MTOC), where it is unlocked by NEK7, leading to its relocalization to dispersed trans-Golgi network (dTGN) vesicle membranes for the formation of an active inflammasome complex [64]. Recruited to dTGN vesicle membranes by binding to phosphatidylinositol 4-phosphate (PtdIns4P) [48]. After the induction of pyroptosis, inflammasome specks are released into the extracellular space where they can further promote IL1B processing and where they can be engulfed by macrophages [37]. Phagocytosis induces lysosomal damage and inflammasome activation in the recipient cells [37]. In the Th2 subset of CD4(+) helper T cells, mainly located in the nucleus (By similarity). Nuclear localization depends upon KPNA2 (By similarity). In the Th1 subset of CD4(+) helper T cells, mainly cytoplasmic (By similarity)

UniProt
By similarity
Evidence & references
  • ECO:0000250 UniProtKB:Q8R4B8
All recorded location assertions (23)
cytoplasmis active in
GO
1 publication
Evidence & references
  • ECO:0000318 GO_REF:0000033 IBA · GO_Central · 20260530
    qualifier: is_active_in
    withFrom: [{"connectedXrefs": [{"db": "MGI", "id": "MGI:1345193"}]}, {"connectedXrefs": [{"db": "MGI", "id": "MGI:1924108"}]}, {"connectedXrefs": [{"db": "MGI", "id": "MGI:2141990"}]}, {"connectedXrefs": [{"db": "MGI", "id": "MGI:2145528"}]}, {"connectedXrefs": [{"db": "MGI", "id": "MGI:2653833"}]}, {"connectedXrefs": [{"db": "MGI", "id": "MGI:2675377"}]}, {"connectedXrefs": [{"db": "PANTHER", "id": "PTN002904450"}]}, {"connectedXrefs": [{"db": "RGD", "id": "708549"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "F1MT67"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "P59044"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "P59045"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "P59046"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "P59047"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "Q647I9"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "Q7RTR0"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "Q86W26"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "Q8WX94"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "Q96MN2"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "Q96P20"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "Q9NX02"}]}, {"connectedXrefs": [{"db": "ZFIN", "id": "ZDB-GENE-120709-59"}]}]
  • ECO:0000314 PMID:34512673 ↗ IDA · UniProt · 20250121
    qualifier: is_active_in
cytosolis active in
GO
1 publication
Evidence & references
membraneis active in
GO
1 publication
Evidence & references
trans-Golgi network membraneis active in
GO
1 publication
Evidence & references
Golgi membranelocated in
GO
Experimental evidence 2 publications
Evidence & references
  • ECO:0000501 GO_REF:0000120 IEA · UniProt · 20260727
    qualifier: located_in
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00029253"}]}, {"connectedXrefs": [{"db": "UniProtKB-SubCell", "id": "SL-0134"}]}]
  • ECO:0000314 PMID:23229815 ↗ IDA · UniProt · 20181221
    qualifier: located_in
  • ECO:0000269 PMID:30487600 ↗ EXP · UniProt · 20251027
    qualifier: located_in
extracellular regionlocated in
GO
Experimental evidence 1 publication
Evidence & references
  • ECO:0000501 GO_REF:0000120 IEA · UniProt · 20260727
    qualifier: located_in
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00027128"}]}, {"connectedXrefs": [{"db": "UniProtKB-SubCell", "id": "SL-0243"}]}]
  • ECO:0000269 PMID:24952504 ↗ EXP · UniProt · 20251027
    qualifier: located_in
nucleuslocated in
GO
By similarity
Evidence & references
  • ECO:0000250 GO_REF:0000024 ISS · UniProt · 20150901
    qualifier: located_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8R4B8"}]}]
  • ECO:0000250 GO_REF:0000024 ISS · UniProt · 20251027
    qualifier: located_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8R4B8"}]}]
  • ECO:0007322 GO_REF:0000044 IEA · UniProt · 20260727
    qualifier: located_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB-SubCell", "id": "SL-0191"}]}]
cytoplasmlocated in
GO
4 publications
Evidence & references
mitochondrionlocated in
GO
Experimental evidence 2 publications
Evidence & references
  • ECO:0000501 GO_REF:0000120 IEA · UniProt · 20260727
    qualifier: located_in
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00026962"}]}, {"connectedXrefs": [{"db": "UniProtKB-SubCell", "id": "SL-0173"}]}]
  • ECO:0000269 PMID:21124315 ↗ EXP · UniProt · 20251027
    qualifier: located_in
  • ECO:0000314 PMID:23582325 ↗ IDA · UniProt · 20221103
    qualifier: located_in
endoplasmic reticulumlocated in
GO
By similarity
Evidence & references
  • ECO:0000250 GO_REF:0000024 ISS · UniProt · 20251027
    qualifier: located_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8R4B8"}]}]
  • ECO:0007322 GO_REF:0000044 IEA · UniProt · 20260727
    qualifier: located_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB-SubCell", "id": "SL-0095"}]}]
microtubule organizing centerlocated in
GO
2 publications
Evidence & references
  • ECO:0000501 GO_REF:0000120 IEA · UniProt · 20260727
    qualifier: located_in
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00029135"}]}, {"connectedXrefs": [{"db": "UniProtKB-SubCell", "id": "SL-0484"}]}]
  • ECO:0000314 PMID:28656979 ↗ IDA · UniProt · 20221103
    qualifier: located_in
  • ECO:0000314 PMID:39173637 ↗ IDA · UniProt · 20240925
    qualifier: located_in
cytosollocated in
GO
Evidence & references
  • ECO:0007322 GO_REF:0000044 IEA · UniProt · 20260727
    qualifier: located_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB-SubCell", "id": "SL-0091"}]}]
  • ECO:0000304 Reactome:R-HSA-1296421 TAS · Reactome · 20100614
    qualifier: located_in
  • ECO:0000304 Reactome:R-HSA-1306876 TAS · Reactome · 20100614
    qualifier: located_in
  • ECO:0000304 Reactome:R-HSA-5691439 TAS · Reactome · 20160519
    qualifier: located_in
  • ECO:0000304 Reactome:R-HSA-844440 TAS · Reactome · 20100614
    qualifier: located_in
  • ECO:0000304 Reactome:R-HSA-844610 TAS · Reactome · 20100614
    qualifier: located_in
  • ECO:0000304 Reactome:R-HSA-844612 TAS · Reactome · 20100614
    qualifier: located_in
  • ECO:0000304 Reactome:R-HSA-873951 TAS · Reactome · 20100614
    qualifier: located_in
  • ECO:0000304 Reactome:R-HSA-9603905 TAS · Reactome · 20100614
    qualifier: located_in
  • ECO:0000304 Reactome:R-HSA-9685268 TAS · Reactome · 20100614
    qualifier: located_in
  • ECO:0000304 Reactome:R-HSA-9685281 TAS · Reactome · 20100614
    qualifier: located_in
  • ECO:0000304 Reactome:R-HSA-9757097 TAS · Reactome · 20100614
    qualifier: located_in
interphase microtubule organizing centerlocated in
GO
By similarity
Evidence & references
  • ECO:0000250 GO_REF:0000024 ISS · UniProt · 20221028
    qualifier: located_in
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB", "id": "Q8R4B8"}]}]
canonical inflammasome complexpart of
GO
Experimental evidence 6 publications
Evidence & references
  • ECO:0007322 GO_REF:0000044 IEA · UniProt · 20260727
    qualifier: part_of
    withFrom: [{"connectedXrefs": [{"db": "UniProtKB-SubCell", "id": "SL-0488"}]}]
  • ECO:0000269 PMID:11786556 ↗ EXP · UniProt · 20251027
    qualifier: part_of
  • ECO:0000269 PMID:14662828 ↗ EXP · UniProt · 20251027
    qualifier: part_of
  • ECO:0000269 PMID:17164409 ↗ EXP · UniProt · 20251027
    qualifier: part_of
  • ECO:0000269 PMID:23871209 ↗ EXP · UniProt · 20251027
    qualifier: part_of
  • ECO:0000269 PMID:25538194 ↗ EXP · UniProt · 20251027
    qualifier: part_of
  • ECO:0000269 PMID:33231615 ↗ EXP · UniProt · 20251027
    qualifier: part_of
NLRP3 inflammasome complexpart of
GO
4 publications
Evidence & references
  • ECO:0000318 GO_REF:0000033 IBA · GO_Central · 20220106
    qualifier: part_of
    withFrom: [{"connectedXrefs": [{"db": "MGI", "id": "MGI:2653833"}]}, {"connectedXrefs": [{"db": "PANTHER", "id": "PTN000648032"}]}, {"connectedXrefs": [{"db": "UniProtKB", "id": "Q96P20"}]}]
  • ECO:0000256 GO_REF:0000117 IEA · UniProt · 20260727
    qualifier: part_of
    withFrom: [{"connectedXrefs": [{"db": "ARBA", "id": "ARBA00092912"}]}]
  • ECO:0000314 PMID:15030775 ↗ IDA · UniProt · 20121017
    qualifier: part_of
  • ECO:0000314 PMID:16407889 ↗ IDA · UniProt · 20260122
    qualifier: part_of
  • ECO:0000353 PMID:29255148 ↗ IPI · ComplexPortal · 20250904
    qualifier: part_of
  • ECO:0000314 PMID:36442502 ↗ IDA · UniProt · 20221221
    qualifier: part_of

Membrane topology 0

No annotation is recorded in this UniProt entry.

04

Disease & Variants

Source annotations; a recorded variant is not automatically a clinical classification.

Familial cold autoinflammatory syndrome 1 FCAS1

A rare autosomal dominant systemic inflammatory disease characterized by recurrent episodes of maculopapular rash associated with arthralgias, myalgias, fever and chills, swelling of the extremities, and conjunctivitis after generalized exposure to cold. Rarely, some patients may also develop late-onset renal amyloidosis.

Experimental evidence 7 publications
Evidence & references

The disease is caused by variants affecting the gene represented in this entry

Evidence & references

No separate evidence record is supplied for this statement.

Complete source annotation
{
  "commentType": "DISEASE",
  "disease": {
    "diseaseId": "Familial cold autoinflammatory syndrome 1",
    "diseaseAccession": "DI-01561",
    "acronym": "FCAS1",
    "description": "A rare autosomal dominant systemic inflammatory disease characterized by recurrent episodes of maculopapular rash associated with arthralgias, myalgias, fever and chills, swelling of the extremities, and conjunctivitis after generalized exposure to cold. Rarely, some patients may also develop late-onset renal amyloidosis.",
    "diseaseCrossReference": {
      "database": "MIM",
      "id": "120100"
    },
    "evidences": [
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "11687797"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "11992256"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "12355493"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "12522564"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "15593220"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "17284928"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "24952504"
      }
    ]
  },
  "note": {
    "texts": [
      {
        "value": "The disease is caused by variants affecting the gene represented in this entry"
      }
    ]
  }
}

Muckle-Wells syndrome MWS

A hereditary periodic fever syndrome characterized by fever, chronic recurrent urticaria, arthralgias, progressive sensorineural deafness, and reactive renal amyloidosis. The disease may be severe if generalized reactive amyloidosis occurs.

Experimental evidence 5 publications
Evidence & references

The disease is caused by variants affecting the gene represented in this entry

Evidence & references

No separate evidence record is supplied for this statement.

Complete source annotation
{
  "commentType": "DISEASE",
  "disease": {
    "diseaseId": "Muckle-Wells syndrome",
    "diseaseAccession": "DI-00783",
    "acronym": "MWS",
    "description": "A hereditary periodic fever syndrome characterized by fever, chronic recurrent urticaria, arthralgias, progressive sensorineural deafness, and reactive renal amyloidosis. The disease may be severe if generalized reactive amyloidosis occurs.",
    "diseaseCrossReference": {
      "database": "MIM",
      "id": "191900"
    },
    "evidences": [
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "11687797"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "11992256"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "12355493"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "15593220"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "24952504"
      }
    ]
  },
  "note": {
    "texts": [
      {
        "value": "The disease is caused by variants affecting the gene represented in this entry"
      }
    ]
  }
}

Chronic infantile neurologic cutaneous and articular syndrome CINCA

Rare congenital inflammatory disorder characterized by a triad of neonatal onset of cutaneous symptoms, chronic meningitis, and joint manifestations with recurrent fever and inflammation.

Experimental evidence 8 publications
Evidence & references

The disease is caused by variants affecting the gene represented in this entry

Evidence & references

No separate evidence record is supplied for this statement.

Complete source annotation
{
  "commentType": "DISEASE",
  "disease": {
    "diseaseId": "Chronic infantile neurologic cutaneous and articular syndrome",
    "diseaseAccession": "DI-01349",
    "acronym": "CINCA",
    "description": "Rare congenital inflammatory disorder characterized by a triad of neonatal onset of cutaneous symptoms, chronic meningitis, and joint manifestations with recurrent fever and inflammation.",
    "diseaseCrossReference": {
      "database": "MIM",
      "id": "607115"
    },
    "evidences": [
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "12032915"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "12483741"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "14630794"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "15231984"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "15334500"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "15593220"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "24952504"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "31086329"
      }
    ]
  },
  "note": {
    "texts": [
      {
        "value": "The disease is caused by variants affecting the gene represented in this entry"
      }
    ]
  }
}

Keratoendothelitis fugax hereditaria KEFH

An autosomal dominant corneal disease that periodically, and fleetingly, affects the corneal endothelium, stroma, and vision, eventually leading to central corneal stromal opacities in some patients. The disease is characterized by unilateral attacks of ocular pain, pericorneal injection, and photophobia. The acute symptoms vanish in 1-2 days but vision remains blurry for several weeks. The attacks start at the age of 3-12 years and can affect either eye. They generally decrease in frequency and get milder with age.

Experimental evidence 2 publications
Evidence & references

The disease is caused by variants affecting the gene represented in this entry

Evidence & references

No separate evidence record is supplied for this statement.

Complete source annotation
{
  "commentType": "DISEASE",
  "disease": {
    "diseaseId": "Keratoendothelitis fugax hereditaria",
    "diseaseAccession": "DI-05200",
    "acronym": "KEFH",
    "description": "An autosomal dominant corneal disease that periodically, and fleetingly, affects the corneal endothelium, stroma, and vision, eventually leading to central corneal stromal opacities in some patients. The disease is characterized by unilateral attacks of ocular pain, pericorneal injection, and photophobia. The acute symptoms vanish in 1-2 days but vision remains blurry for several weeks. The attacks start at the age of 3-12 years and can affect either eye. They generally decrease in frequency and get milder with age.",
    "diseaseCrossReference": {
      "database": "MIM",
      "id": "148200"
    },
    "evidences": [
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "29366613"
      },
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "35559676"
      }
    ]
  },
  "note": {
    "texts": [
      {
        "value": "The disease is caused by variants affecting the gene represented in this entry"
      }
    ]
  }
}

Deafness, autosomal dominant, 34, with or without inflammation DFNA34

A form of sensorineural hearing loss. Sensorineural deafness results from damage to the neural receptors of the inner ear, the nerve pathways to the brain, or the area of the brain that receives sound information. DFNA34 is a postlingual, slowly progressive form with variable severity and variable additional features. Some DFNA34 patients have autoinflammatory manifestations.

Experimental evidence 1 publication
Evidence & references

The disease may be caused by variants affecting the gene represented in this entry

Evidence & references

No separate evidence record is supplied for this statement.

Complete source annotation
{
  "commentType": "DISEASE",
  "disease": {
    "diseaseId": "Deafness, autosomal dominant, 34, with or without inflammation",
    "diseaseAccession": "DI-05146",
    "acronym": "DFNA34",
    "description": "A form of sensorineural hearing loss. Sensorineural deafness results from damage to the neural receptors of the inner ear, the nerve pathways to the brain, or the area of the brain that receives sound information. DFNA34 is a postlingual, slowly progressive form with variable severity and variable additional features. Some DFNA34 patients have autoinflammatory manifestations.",
    "diseaseCrossReference": {
      "database": "MIM",
      "id": "617772"
    },
    "evidences": [
      {
        "evidenceCode": "ECO:0000269",
        "source": "PubMed",
        "id": "28847925"
      }
    ]
  },
  "note": {
    "texts": [
      {
        "value": "The disease may be caused by variants affecting the gene represented in this entry"
      }
    ]
  }
}

Natural variants 34

Scroll across the table for evidence and actions.

34 recorded rows

FeaturePositionDescriptionEvidenceInspect
D21HVAR_08049021in KEFH; does not affect ability to homooligomerize into ordered polymers; dbSNP:rs200154873
D → H
Experimental evidence 2 publications
Evidence & references
No verified residues in this structure
I174TVAR_043679174in CINCA; dbSNP:rs180177449
I → T
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
V200MVAR_013227200in FCAS1 and MWS; dbSNP:rs121908147
V → M
Experimental evidence 4 publications
Evidence & references
No verified residues in this structure
R262LVAR_043680262in CINCA; dbSNP:rs180177442
R → L
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R262PVAR_043681262in CINCA; dbSNP:rs180177442
R → P
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R262WVAR_014104262in FCAS1 and MWS; spontaneous polymerization into inflammasome speck; dbSNP:rs121908150
R → W
Experimental evidence 3 publications
Evidence & references
No verified residues in this structure
L266HVAR_043682266in CINCA; dbSNP:rs180177436
L → H
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
D305GVAR_043683305in CINCA; dbSNP:rs180177447
D → G
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
D305NVAR_014105305in CINCA and MWS; spontaneous polymerization into inflammasome speck; dbSNP:rs121908153
D → N
Experimental evidence 7 publications
Evidence & references
No verified residues in this structure
L307PVAR_014124307in FCAS1 and MWS; dbSNP:rs180177431
L → P
Experimental evidence 2 publications
Evidence & references
No verified residues in this structure
Q308KVAR_043684308in CINCA; dbSNP:rs180177432
Q → K
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
F311SVAR_014106311in CINCA; dbSNP:rs121908154
F → S
Experimental evidence 2 publications
Evidence & references
No verified residues in this structure
T350MVAR_014366350in MWS and CINCA; spontaneous polymerization into inflammasome speck; dbSNP:rs151344629
T → M
Experimental evidence 4 publications
Evidence & references
No verified residues in this structure
A354VVAR_013228354in MWS; dbSNP:rs121908149
A → V
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
L355PVAR_043685355in FCAS1; dbSNP:rs28937896
L → P
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
E356DVAR_043686356in CINCA; dbSNP:rs180177444
E → D
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
H360RVAR_014367360in CINCA; dbSNP:rs180177434
H → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
T407PVAR_043687407in CINCA; dbSNP:rs180177445
T → P
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
T438IVAR_043688438in CINCA; dbSNP:rs180177433
T → I
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
T438NVAR_014368438in CINCA; dbSNP:rs180177433
T → N
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
A441TVAR_014369441in MWS; dbSNP:rs180177430
A → T
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
A441VVAR_013229441in FCAS1; dbSNP:rs121908146
A → V
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R490KVAR_043689490in FCAS1; dbSNP:rs145268073
R → K
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
F525CVAR_031853525in FCAS1; dbSNP:rs180177478
F → C
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
F525LVAR_043690525in CINCA; dbSNP:rs180177439
F → L
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
G571RVAR_014107571in MWS; dbSNP:rs121908151
G → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Y572CVAR_043691572in CINCA; dbSNP:rs180177438
Y → C
Experimental evidence 2 publications
Evidence & references
No verified residues in this structure
F575SVAR_014108575in CINCA; dbSNP:rs121908152
F → S
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
E629GVAR_013230629in FCAS1; dbSNP:rs121908148
E → G
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
L634FVAR_043692634in CINCA; dbSNP:rs180177446
L → F
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
M664TVAR_014370664in CINCA; dbSNP:rs180177435
M → T
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Q705KVAR_043693705in dbSNP:rs35829419
Q → K
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Y861CVAR_023551861in CINCA; dbSNP:rs180177452
Y → C
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R920QVAR_081008920in DFNA34; uncertain significance; increases inflammatory response; dbSNP:rs1553293095
R → Q
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure

Laboratory mutagenesis 77

Scroll across the table for evidence and actions.

77 recorded rows

FeaturePositionDescriptionEvidenceInspect
Mutagenesis2–7Strongly decreased interaction with MAVS and localization to mitochondria.
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
S5A5Decreased phosphorylation; increased activation of the NLRP3 inflammasome.
S → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
S5D / S5E5Mimics phosphorylation state; decreased activation of the NLRP3 inflammasome.
S → D, E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
RCKLAR7ACALAA7–12Abolished formation of the NLRP3 inflammasome.
RCKLAR → ACALAA
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R7E7Impaired ability to homooligomerize into ordered polymers.
R → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
E15R15Impaired ability to homooligomerize into ordered polymers. Complete loss of PYCARD/ASC filament nucleation.
E → R
Experimental evidence 2 publications
Evidence & references
No verified residues in this structure
LK22PA22–23Loss of PYCARD/ASC-binding. No effect on GBP5-binding.
LK → PA
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
KK23EE23–24Impaired ability to homooligomerize into ordered polymers. Complete loss of PYCARD/ASC filament nucleation.
KK → EE
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
K23E23Complete loss of PYCARD/ASC filament nucleation; when associated with E-24.
K → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
K24E24Complete loss of PYCARD/ASC filament nucleation; when associated with E-23.
K → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
M27E27Impaired ability to homooligomerize into ordered polymers. Complete loss of PYCARD/ASC filament nucleation.
M → E
Experimental evidence 2 publications
Evidence & references
No verified residues in this structure
D31V31Impaired ability to homooligomerize into ordered polymers. Decreased PYCARD/ASC filament nucleation.
D → V
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R43E43Impaired ability to homooligomerize into ordered polymers.
R → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R43W43Complete loss of PYCARD/ASC filament nucleation. Decreased PYCARD/ASC filament nucleation.
R → W
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
H51R51Does not affect ability to homooligomerize into ordered polymers.
H → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
V52G52Decreased interaction with MAPK4.
V → G
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
E64R64Complete loss of PYCARD/ASC filament nucleation.
E → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
W68A68Does not affect ubiquitination by the SCF(FBXL2) complex.
W → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
W73A73Decreased ubiquitination by the SCF(FBXL2) complex.
W → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
A77V77Induces the formation of short but ordered homopolymers.
A → V
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R80E80Impaired ability to homooligomerize into ordered polymers. Decreased PYCARD/ASC filament nucleation.
R → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R81E81Impaired ability to homooligomerize into ordered polymers. Decreased PYCARD/ASC filament nucleation.
R → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
D82R82Complete loss of PYCARD/ASC filament nucleation.
D → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
C130A130Decreased palmitoylation and activation of the NLRP3 inflammasome; when associated with A-958.
C → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
YRKKYRKY136FRKKFRKF136–143Decreased phosphorylation by BTK; when associated with F-168.
YRKKYRKY → FRKKFRKF
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Y143R143Decreased ability to activate the NLRP3 inflammasome.
Y → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R147E147Impaired ability to activate the NLRP3 inflammasome.
R → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
E152R152Impaired ability to activate the NLRP3 inflammasome.
E → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
N155A155Impaired ability to activate the NLRP3 inflammasome.
N → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R157E157Impaired ability to activate the NLRP3 inflammasome.
R → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
K166E166Impaired ability to activate the NLRP3 inflammasome.
K → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Y168F168Decreased phosphorylation by BTK; when associated with 136-F--F-143.
Y → F
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
E176R176Impaired ability to activate the NLRP3 inflammasome.
E → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
S198A198Abolished phosphorylation by MAPK8/JNK1; decreased activation of the NLRP3 inflammasome.
S → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
S198D / S198E198Mimicks phosphorylation state; increased activation of the NLRP3 inflammasome.
S → D, E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
D213R213Does not affect ability to activate the NLRP3 inflammasome.
D → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
A228Q228Abolished binding to small-inhibitor MCC950 and ability to activate the NLRP3 inflammasome following stimulation with nigericin.
A → Q
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
GKT231AAA231–233In Walker A mutant; abolished ATPase activity. Reduced ATP-binding leading to decreased activation of the NLRP3 inflammasome.
GKT → AAA
Experimental evidence 2 publications
Evidence & references
No verified residues in this structure
S265A265Abolished phosphorylation by LATS1, leading to decreased activation of the NLRP3 inflammasome.
S → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
DGFDE302AGFAA / DGFDE302AGFNA302–306In Walker B mutant; abolished ATPase activity. Abolished binding to small-inhibitor MCC950.
DGFDE → AGFAA, AGFNA
Experimental evidence 2 publications
Evidence & references
No verified residues in this structure
K324R324Complete loss of PYCARD/ASC filament nucleation.
K → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R351T351Abolished binding to small-inhibitor MCC950 and ability to activate the NLRP3 inflammasome following stimulation with nigericin.
R → T
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Q359A / Q359R359Does not affect ability to activate the NLRP3 inflammasome.
Q → A, R
Experimental evidence 2 publications
Evidence & references
No verified residues in this structure
Q359A359Decreased interaction with HSPA8/HSC70 and NLRP3 degradation by the chaperone-mediated autophagy pathway.
Q → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
H364E364Does not affect ability to activate the NLRP3 inflammasome.
H → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Q424A424Impaired ability to activate the NLRP3 inflammasome.
Q → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
K430R430Complete loss of PYCARD/ASC filament nucleation.
K → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Q509A509Impaired ability to activate the NLRP3 inflammasome.
Q → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R578A578Abolished binding to small-inhibitor MCC950 and ability to activate the NLRP3 inflammasome following stimulation with nigericin.
R → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Q603A603Decreased interaction with HSPA8/HSC70 and NLRP3 degradation by the chaperone-mediated autophagy pathway.
Q → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
KKL619EEA619–621Does not affect autoinhibition of the protein.
KKL → EEA
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
QEE638RRR638–640Strongly decreased ability to activate the NLRP3 inflammasome.
QEE → RRR
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Mutagenesis689–698Loss of autoinhibition of the protein.
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
K689R689Abolished ubiquitination by the SCF(FBXL2) complex.
K → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
V707R707Decreased ability to activate the NLRP3 inflammasome.
V → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
S735A735Does not affect activation of the NLRP3 inflammasome.
S → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
E745R745Abolished ability to activate the NLRP3 inflammasome.
E → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
D750R750Abolished ability to activate the NLRP3 inflammasome.
D → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
FD788AR788–789Slightly impaired autoinhibition of the protein; when associated with A-831.
FD → AR
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
F788E788Slightly decreased ability to activate the NLRP3 inflammasome; when associated with E-813.
F → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
D789R789Slightly decreased ability to activate the NLRP3 inflammasome; when associated with D-816.
D → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Q798A798Decreased interaction with HSPA8/HSC70 and NLRP3 degradation by the chaperone-mediated autophagy pathway.
Q → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
E802R802Abolished ability to activate the NLRP3 inflammasome.
E → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
S806A806Abolished phosphorylation by CSNK1A1; increased activation of the NLRP3 inflammasome.
S → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
S806D / S806E806Mimics phosphorylation state; decreased activation of the NLRP3 inflammasome.
S → D, E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
F813E813Slightly decreased ability to activate the NLRP3 inflammasome; when associated with E-788.
F → E
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
R816D816Slightly decreased ability to activate the NLRP3 inflammasome; when associated with R-789.
R → D
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
K831A831Slightly impaired autoinhibition of the protein; when associated with 788-A-R-789.
K → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
W833G833Does not affect ability to activate the NLRP3 inflammasome.
W → G
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
CC837SS837–838Abolished palmitoylation by ZDHHC5; when associated with S-838.
CC → SS
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
C844A844Abolished palmitoylation by ZDHHC12, preventing degradation by the chaperone-mediated autophagy pathway.
C → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Y861F861Abolished phosphorylation.
Y → F
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
E864R864Decreased ability to activate the NLRP3 inflammasome.
E → R
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Y918G918Decreased ability to activate the NLRP3 inflammasome.
Y → G
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
C958A958Decreased palmitoylation and activation of the NLRP3 inflammasome; when associated with A-130.
C → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Q995A995Decreased interaction with HSPA8/HSC70 and NLRP3 degradation by the chaperone-mediated autophagy pathway.
Q → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
S1035A1035Does not affect activation of the NLRP3 inflammasome.
S → A
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
05

PTM/Processing

Phosphorylation at Ser-198 by MAPK8/JNK1 increases inflammasome activation by promoting deubiquitination by BRCC3 and NLRP3 homooligomerization [42]. Phosphorylation at Ser-806 by CSNK1A1 prevents inflammasome activation by preventing NEK7 recruitment [57]. Phosphorylation at Ser-5 in the pyrin domain inhibits homomultimerization of NLRP3 and activation of the NLRP3 inflammasome: dephosphorylation by protein phosphatase 2A (PP2A) promotes assembly of the NLRP3 inflammasome [46].

Phosphorylation at Ser-295 by PKD/PRKD1 promotes NLRP3 inflammasome assembly (By similarity). Phosphorylation by ERK1/MAPK3 promotes NLRP3 inflammasome assembly [34]. Phosphorylation by BTK (at Tyr-136, Tyr-140, Tyr-143 and Tyr-168) in the region that mediates binding to phosphatidylinositol phosphate, promotes relocalization of NLRP3 and assembly of the NLRP3 inflammasome [56].

Phosphorylation at Tyr-861 inhibits NLRP3 inflammasome assembly: dephosphorylation by PTPN22 promotes inflammasome activation [45]. Phosphorylated by LATS1 and LATS2 at Ser-265 following palmitoylation by ZDHHC1, promoting its relocalization to the microtubule organizing center (MTOC), where NLRP3 is activated by NEK7, leading to inflammasome assembly and activation [64]

By similarityExperimental evidence 7 publications
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000250",
          "source": "UniProtKB",
          "id": "Q8R4B8"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "24623131"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "27043286"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "28465465"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "28943315"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34554188"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34615873"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "39173637"
        }
      ],
      "value": "Phosphorylation at Ser-198 by MAPK8/JNK1 increases inflammasome activation by promoting deubiquitination by BRCC3 and NLRP3 homooligomerization (PubMed:28943315). Phosphorylation at Ser-806 by CSNK1A1 prevents inflammasome activation by preventing NEK7 recruitment (PubMed:34615873). Phosphorylation at Ser-5 in the pyrin domain inhibits homomultimerization of NLRP3 and activation of the NLRP3 inflammasome: dephosphorylation by protein phosphatase 2A (PP2A) promotes assembly of the NLRP3 inflammasome (PubMed:28465465). Phosphorylation at Ser-295 by PKD/PRKD1 promotes NLRP3 inflammasome assembly (By similarity). Phosphorylation by ERK1/MAPK3 promotes NLRP3 inflammasome assembly (PubMed:24623131). Phosphorylation by BTK (at Tyr-136, Tyr-140, Tyr-143 and Tyr-168) in the region that mediates binding to phosphatidylinositol phosphate, promotes relocalization of NLRP3 and assembly of the NLRP3 inflammasome (PubMed:34554188). Phosphorylation at Tyr-861 inhibits NLRP3 inflammasome assembly: dephosphorylation by PTPN22 promotes inflammasome activation (PubMed:27043286). Phosphorylated by LATS1 and LATS2 at Ser-265 following palmitoylation by ZDHHC1, promoting its relocalization to the microtubule organizing center (MTOC), where NLRP3 is activated by NEK7, leading to inflammasome assembly and activation (PubMed:39173637)"
    }
  ],
  "commentType": "PTM"
}

Ubiquitinated; undergoes both 'Lys-48'- and 'Lys-63'-linked polyubiquitination [21, 41]. Ubiquitination does not lead to degradation, but inhibits inflammasome activation (By similarity). Deubiquitination is catalyzed by BRCC3 and associated with NLRP3 activation and inflammasome assembly (By similarity).

This process can be induced by the activation of Toll-like receptors (by LPS), through a non-transcriptional pathway dependent on the mitochondrial production of reactive oxygen species, and by ATP (By similarity). Ubiquitinated by TRIM31 via 'Lys-48'-linked ubiquitination, leading to its degradation by the proteasome [41]. Ubiquitinated at Lys-689 by the SCF(FBXL2) complex, leading to its degradation by the proteasome [39].

Ubiquitinated by TRIM35 via 'lys-48' and 'Lys-63'-linked ubiquitination leading to inhibition of NLRP3 inflammasome activation [58]. Undergoes 'Lys-27'-linked polyubiquitination by MARCHF5, leading to NLRP3-NEK7 complex formation and NLRP3 oligomerization [61]

By similarityExperimental evidence 5 publications
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000250",
          "source": "UniProtKB",
          "id": "Q8R4B8"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "22948162"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "26037928"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "27929086"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34512673"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "37575012"
        }
      ],
      "value": "Ubiquitinated; undergoes both 'Lys-48'- and 'Lys-63'-linked polyubiquitination (PubMed:22948162, PubMed:27929086). Ubiquitination does not lead to degradation, but inhibits inflammasome activation (By similarity). Deubiquitination is catalyzed by BRCC3 and associated with NLRP3 activation and inflammasome assembly (By similarity). This process can be induced by the activation of Toll-like receptors (by LPS), through a non-transcriptional pathway dependent on the mitochondrial production of reactive oxygen species, and by ATP (By similarity). Ubiquitinated by TRIM31 via 'Lys-48'-linked ubiquitination, leading to its degradation by the proteasome (PubMed:27929086). Ubiquitinated at Lys-689 by the SCF(FBXL2) complex, leading to its degradation by the proteasome (PubMed:26037928). Ubiquitinated by TRIM35 via 'lys-48' and 'Lys-63'-linked ubiquitination leading to inhibition of NLRP3 inflammasome activation (PubMed:34512673). Undergoes 'Lys-27'-linked polyubiquitination by MARCHF5, leading to NLRP3-NEK7 complex formation and NLRP3 oligomerization (PubMed:37575012)"
    }
  ],
  "commentType": "PTM"
}

Palmitoylation by ZDHHC12 promotes NLRP3 degradation by the chaperone-mediated autophagy pathway (CMA) and therefore limits NLRP3 inflammasome activation [60, 65]. Following palmitoylation, HSPA8/HSC70 recognizes and binds the KFERQ-like motifs on NLRP3 and promotes NLRP3 recruitment to lysosomes, where it is degraded via the chaperone-mediated autophagy pathway in a LAMP2-dependent process [60]. Palmitoylation at Cys-837 and Cys-838 by ZDHHC5 enhances its binding to NEK7 leading to inflammasome assembly and activation [62].

Palmitoylation at Cys-130 and Cys-958 by ZDHHC1 facilitates phosphorylation at Ser-265 by LATS1 and LATS2, promoting its relocalization to the microtubule organizing center (MTOC), where NLRP3 is activated by NEK7, leading to inflammasome assembly and activation [64]. Depalmitoylated by ABHD17A [62]

Experimental evidence 4 publications
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "36586411"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "38092000"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "39173637"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "39225180"
        }
      ],
      "value": "Palmitoylation by ZDHHC12 promotes NLRP3 degradation by the chaperone-mediated autophagy pathway (CMA) and therefore limits NLRP3 inflammasome activation (PubMed:36586411, PubMed:39225180). Following palmitoylation, HSPA8/HSC70 recognizes and binds the KFERQ-like motifs on NLRP3 and promotes NLRP3 recruitment to lysosomes, where it is degraded via the chaperone-mediated autophagy pathway in a LAMP2-dependent process (PubMed:36586411). Palmitoylation at Cys-837 and Cys-838 by ZDHHC5 enhances its binding to NEK7 leading to inflammasome assembly and activation (PubMed:38092000). Palmitoylation at Cys-130 and Cys-958 by ZDHHC1 facilitates phosphorylation at Ser-265 by LATS1 and LATS2, promoting its relocalization to the microtubule organizing center (MTOC), where NLRP3 is activated by NEK7, leading to inflammasome assembly and activation (PubMed:39173637). Depalmitoylated by ABHD17A (PubMed:38092000)"
    }
  ],
  "commentType": "PTM"
}

Degraded via selective autophagy following interaction with IRGM [49]. IRGM promotes NLRP3 recruitment to autophagosome membranes, promoting its SQSTM1/p62-dependent autophagy-dependent degradation [49]

Experimental evidence 1 publication
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "30612879"
        }
      ],
      "value": "Degraded via selective autophagy following interaction with IRGM (PubMed:30612879). IRGM promotes NLRP3 recruitment to autophagosome membranes, promoting its SQSTM1/p62-dependent autophagy-dependent degradation (PubMed:30612879)"
    }
  ],
  "commentType": "PTM"
}

The disulfide bond in the pyrin domain might play a role in reactive oxygen species-mediated activation

Curator inference 1 publication
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000305",
          "source": "PubMed",
          "id": "21880711"
        }
      ],
      "value": "The disulfide bond in the pyrin domain might play a role in reactive oxygen species-mediated activation"
    }
  ],
  "commentType": "PTM"
}

(Microbial infection) ADP-ribosylated by M.pneumoniae CARDS toxin in vitro

Experimental evidence 1 publication
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "25538194"
        }
      ],
      "value": "(Microbial infection) ADP-ribosylated by M.pneumoniae CARDS toxin in vitro"
    }
  ],
  "commentType": "PTM"
}

Processed chains & precursor regions 1

Scroll across the table for evidence and actions.

1 recorded rows

FeaturePositionDescriptionEvidenceInspect
ChainPRO_00000808861–1036NACHT, LRR and PYD domains-containing protein 3
Evidence & references

No separate evidence record is supplied for this statement.

No verified residues in this structure

Modifications 32

Scroll across the table for evidence and actions.

32 recorded rows

FeaturePositionDescriptionEvidenceInspect
Modified residue5Phosphoserine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue13Phosphotyrosine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue136Phosphotyrosine; by BTK
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue140Phosphotyrosine; by BTK
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue143Phosphotyrosine; by BTK
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue161Phosphoserine
By similarity
Evidence & references
  • ECO:0000250 UniProtKB:Q8R4B8
No verified residues in this structure
Modified residue163Phosphoserine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue168Phosphotyrosine; by BTK
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue198Phosphoserine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue198Phosphoserine; by MAPK8
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue201Phosphoserine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue265Phosphoserine; by LATS1 and LATS2
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue295Phosphoserine
By similarity
Evidence & references
  • ECO:0000250 UniProtKB:Q8R4B8
No verified residues in this structure
Modified residue334Phosphoserine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue728Phosphoserine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue735Phosphoserine; by CSNK1A1
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue806Phosphoserine; by CSNK1A1
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue861Phosphotyrosine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue975Phosphoserine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Modified residue1035Phosphoserine; by CSNK1A1
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Lipidation130S-palmitoyl cysteine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Lipidation837S-palmitoyl cysteine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Lipidation838S-palmitoyl cysteine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Lipidation844S-palmitoyl cysteine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Lipidation958S-palmitoyl cysteine
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Disulfide bond8, 108Redox-active
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Cross-link324Glycyl lysine isopeptide (Lys-Gly) (interchain with G-Cter in ubiquitin)
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Cross-link430Glycyl lysine isopeptide (Lys-Gly) (interchain with G-Cter in ubiquitin)
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Cross-link689Glycyl lysine isopeptide (Lys-Gly) (interchain with G-Cter in ubiquitin)
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Cross-link878Glycyl lysine isopeptide (Lys-Gly) (interchain with G-Cter in ubiquitin)
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Cross-link927Glycyl lysine isopeptide (Lys-Gly) (interchain with G-Cter in ubiquitin)
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Cross-link973Glycyl lysine isopeptide (Lys-Gly) (interchain with G-Cter in ubiquitin)
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
06

Expression

Predominantly expressed in macrophages [54, 53]. Also expressed in dendritic cells, B- and T-cells (at protein level) [3, 14]. Expressed in LPS-treated granulocytes, but not in resting cells (at protein level) [14].

Expression in monocytes is very weak (at protein level) [14]. Expressed in stratified non-keratinizing squamous epithelium, including oral, esophageal and ectocervical mucosa and in the Hassall's corpuscles in the thymus. Also, detected in the stratified epithelium covering the bladder and ureter (transitional mucosa) (at protein level) [14].

Expressed in lung epithelial cells (at protein level) [31]. Expressed in chondrocytes [78]. Expressed at low levels in resting osteoblasts [16]

Experimental evidence 7 publications
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "11786556"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "12032915"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "17164409"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "17907925"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "23229815"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "33231615"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34133077"
        }
      ],
      "value": "Predominantly expressed in macrophages (PubMed:33231615, PubMed:34133077). Also expressed in dendritic cells, B- and T-cells (at protein level) (PubMed:11786556, PubMed:17164409). Expressed in LPS-treated granulocytes, but not in resting cells (at protein level) (PubMed:17164409). Expression in monocytes is very weak (at protein level) (PubMed:17164409). Expressed in stratified non-keratinizing squamous epithelium, including oral, esophageal and ectocervical mucosa and in the Hassall's corpuscles in the thymus. Also, detected in the stratified epithelium covering the bladder and ureter (transitional mucosa) (at protein level) (PubMed:17164409). Expressed in lung epithelial cells (at protein level) (PubMed:23229815). Expressed in chondrocytes (PubMed:12032915). Expressed at low levels in resting osteoblasts (PubMed:17907925)"
    }
  ],
  "commentType": "TISSUE SPECIFICITY"
}

Induction

By activators of Toll-like receptors, such as lipoteichoic acid (LTA) (TLR2), polyinosine-polycytidylic acid (poly(I:C), a synthetic analog of dsRNA) (TLR3) and bacterial lipopolysaccharides (LPS) (TLR4), and by TNF [9]. Up-regulated in osteoblasts after exposure to invasive, but not invasion-defective, strains of Salmonella typhimurium (at protein level) [16]. In macrophages, up-regulated by endocannabinoid anandamide/AEA [30]

Experimental evidence 3 publications
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "14662828"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "17907925"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "23955712"
        }
      ],
      "value": "By activators of Toll-like receptors, such as lipoteichoic acid (LTA) (TLR2), polyinosine-polycytidylic acid (poly(I:C), a synthetic analog of dsRNA) (TLR3) and bacterial lipopolysaccharides (LPS) (TLR4), and by TNF (PubMed:14662828). Up-regulated in osteoblasts after exposure to invasive, but not invasion-defective, strains of Salmonella typhimurium (at protein level) (PubMed:17907925). In macrophages, up-regulated by endocannabinoid anandamide/AEA (PubMed:23955712)"
    }
  ],
  "commentType": "INDUCTION"
}

(Microbial infection) In COVID-19 patient derived macrophages, expression is induced by SARS-CoV-2 spike protein, probably via TLR2 (at protein level)

Experimental evidence 1 publication
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34133077"
        }
      ],
      "value": "(Microbial infection) In COVID-19 patient derived macrophages, expression is induced by SARS-CoV-2 spike protein, probably via TLR2 (at protein level)"
    }
  ],
  "commentType": "INDUCTION"
}
07

Interaction

Documented interaction partners

UniProt’s filtered IntAct records. Experiment counts describe reported experiments, not binding strength or independent publications. Separate products remain separate rows.

13 records
Partner / productSpeciesExperimentsEvidence & actions
CALRP27797With Q96P20Homo sapiens3
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: P27797. Reported experiment count: 3.

Open protein ↗
CARD8Q9Y2G2-1With Q96P20Homo sapiens4
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: Q9Y2G2-1. Reported experiment count: 4.

Open protein ↗
CARD8Q9Y2G2-5With Q96P20Homo sapiens5
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: Q9Y2G2-5. Reported experiment count: 5.

Open protein ↗
DLSTP36957With Q96P20Homo sapiens3
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: P36957. Reported experiment count: 3.

Open protein ↗
EIF2AK2P19525With Q96P20Homo sapiens6
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: P19525. Reported experiment count: 6.

Open protein ↗
MAVSQ7Z434With Q96P20Homo sapiens4
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: Q7Z434. Reported experiment count: 4.

Open protein ↗
NEK7Q8TDX7With Q96P20Homo sapiens4
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: Q8TDX7. Reported experiment count: 4.

Open protein ↗
NLRP3Q96P20With Q96P20Homo sapiens4
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: Q96P20. Reported experiment count: 4.

Open protein ↗
PYCARDQ9ULZ3With Q96P20Homo sapiens27
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: Q9ULZ3. Reported experiment count: 27.

Open protein ↗
8bQ80H93With Q96P20Severe acute respiratory syndrome coronavirusCross-species7
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: Q80H93. Reported experiment count: 7.

Open protein ↗
NP0DTC9With Q96P20Severe acute respiratory syndrome coronavirus 2Cross-species18
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: P0DTC9. Reported experiment count: 18.

Open protein ↗
Nek7Q9ES74With Q96P20Mus musculusCross-species2
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20. Partner: Q9ES74. Reported experiment count: 2.

Open protein ↗
NEK7Q8TDX7-1With Q96P20-1Homo sapiens6
IntAct evidence

Pair evidence in IntAct ↗

Source product: Q96P20-1. Partner: Q8TDX7-1. Reported experiment count: 6.

Open protein ↗

Complex membership & assembly descriptions

Co-membership does not by itself prove direct binding between every pair.

NLRP3 inflammasome CPX-4141 Complex Portal

Homo sapiens; 9606 ·

Evidence: inferred by curator

  • CASP1 · P29466 ·
  • NLRP3 · Q96P20 ·
  • PYCARD · Q9ULZ3 ·

A pro-inflammatory thiol protease complex that is activated by Gram-positive bacteria such as Staphylococcus aureus and Group B Streptococcus, viruses such as influenza virus, pore-forming toxins such as hemolysin and pneumolysin, as well as by endogenous ligands and crystalline substances such as ATP, silica, and alum. Primarily acts in monocytes and macrophages. NLRP3 activation is triggered by two sequential signals. The basal level of NLRP3 in macrophages is quite low. Before activation, NLRP3 needs to be “primed” by Toll-like receptor (TLR) agonists such as lipopolysaccharide (LPS). Activation of TLR signaling not only transcriptionally up-regulates NLRP3 expression, but also post-transcriptionally activates NLRP3 by phosphorylation and deubiquitination. The second step, defined as “activation,” can be induced by several potent stimuli such as pore-forming toxins, leading to the oligomerization of NLRP3 and the subsequent assembly of inflammasome. Activating platform for Caspase-1 (CPX-952) through proximity-induced self-cleavage in an ATP-dependent reaction. Activated Caspase-1 cleaves interleukins 1beta (IL1B, P01584) and IL18 (Q14116) releasing the mature cytokines which are involved in a variety of inflammatory processes and is also involved in pyroptosis of macrophages, a special case of cell death, associated with infection by intracellular pathogens where it cleaves GSDMD (P57764). Activation of NLRP3 inflammasome is also required for HMGB1 (P09429) secretion which stimulate inflammatory responses. It belongs to the family of Inflammasomes that includes NLRP1 inflammasome (CPX-4082), NLRC4 inflammasome (CPX-4144), AIM2 inflammasome (CPX-4142) and Pyrin inflammasome (CPX-4143). The expression of NLRP3 and PYCARD is up-regulated in adipocytes from obese patients. Elevation of NLRP3 inflammasome activity has been observed in myeloid cells of patients affected by type 2 diabetes. Moreover, animal models support a role of this complex in multiple sclerosis, Alzheimer's disease, Parkinson's disease, gout, Cryopyrin-associated periodic syndromes and atherosclerosis.

Source & references ↗

UniProt subunit description

Sensor component of NLRP3 inflammasomes; inflammasomes are supramolecular complexes that assemble in the cytosol in response to pathogens and other damage-associated signals and play critical roles in innate immunity and inflammation [3, 11, 68]. The core of NLRP3 inflammasomes consists of a signal sensor component (NLRP3), an adapter (PYCARD/ASC), which recruits an effector pro-inflammatory caspase (CASP1 and, possibly, CASP4 and CASP5) [3, 11, 68]. Homodecamer; inactive NLRP3 forms homodecameric double-ring cages that hide pyrin domains within NACHT-LRR rings to avoid premature activation [72, 73].

Interacts (via pyrin domain) with PYCARD/ASC (via pyrin domain); interaction is direct [3, 69, 55, 74, 75, 76]. Interacts (via LRR repeat domain) with NEK7 (via N-terminus); the interaction is required for the formation of the complex NLRP3:PYCARD, oligomerization of PYCARD/ASC and activation of CASP1 [70, 76, 62, 64, 61]. Interacts (via LRR repeat domain) with NR4A1/Nur77 (via N-terminus); the interaction is direct, requires activation of NR4A1 by its ligands NBRE-containing dsDNA and lipopolysaccharide, and stimulates the association of NLRP3 with NEK7 for non-canonical NLRP3 inflammasome activation (By similarity).

Interacts with CARD8; leading to inhibit formation of the NLRP3 inflammasome [32]. Interacts with MEFV; this interaction targets NLRP3 to degradation by autophagy, hence preventing excessive IL1B- and IL18-mediated inflammation [13, 40]. Interacts with EIF2AK2/PKR; this interaction requires EIF2AK2 activity, is accompanied by EIF2AK2 autophosphorylation and promotes inflammasome assembly in response to specific stimuli [22].

Interacts with GBP5 (via DAPIN domain); this interaction promotes inflammasome assembly in response to microbial and soluble, but not crystalline, agents [23]. Interacts with PML (isoform PML-1) (via the leucine-rich repeat (LRR) domain); PML-mediated increase in NLRP3 inflammasome activation does not depend upon this interaction [24]. Interacts (via NACHT domain) with DHX33 (via DEAH box); NLRP3 activation in presence of cytosolic dsRNA is mediated by DHX33 [26].

Interacts (via NACHT and LRR domains) with ARRB2; this interaction is direct and inducible by polyunsaturated fatty acids (PUFAs) [27]. Interacts with PYDC5 [36]. Interacts (via NACHT domain) with DDX3X under both LPS-primed and inflammasome-activating conditions (By similarity).

Interacts with IRF4 (via the LRR domain); this interaction is direct and is required for optimal IRF4 binding to IL4 promoter and efficient IL4 transactivation during differentiation of Th2 helper T cells (By similarity). Interacts with MAVS; promoting localization to mitochondria and activation of the NLRP3 inflammasome [28]. Interacts with MARK4; promoting localization of NLRP3 to the microtubule organizing center (MTOC) [43].

Interacts with TRIM50; this interaction also promotes NLRP3 oligomerization and subsequent inflammasome activation (By similarity). Interacts with IRGM; preventing NLRP3 inflammasome assembly and promoting NLRP3 degradation [49]. Interacts (via KFERQ-like motifs) with HSPA8/HSC70; promoting NLRP3 degradation by the chaperone-mediated autophagy pathway [60].

Interacts (via NACHT and LLR domains) with ABHD8; this interaction is enhanced in the presence of NLRP3 inflammasome inducers, such as ATP, nigericin, silica, or alum. Interaction with ABHD8 leads the recruitment of ZDHHC12, hence facilitating NLRP3 palmitoylation and degradation by the chaperone-mediated autophagy pathway (CMA), therefore attenuating NLRP3 inflammasome activation [65]. Interacts with ZNFX1; the interaction inhibits NLRP3 inflammasome activation by sequestering NLRP3 in the cytoplasm [63].

Interacts with FAM120A; this interaction inhibits inflammasome activation [67]

By similarityExperimental evidence 30 publications
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000250",
          "source": "UniProtKB",
          "id": "Q8R4B8"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "11786556"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "15030775"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "17431422"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "21880711"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "22461501"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "22801494"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "23430110"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "23582325"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "23809162"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "23871209"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "24517500"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "24531343"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "26347139"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "27432880"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "28656979"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "30612879"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "31189953"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34341353"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "35114687"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "35254907"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "35559676"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "36142182"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "36442502"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "36586411"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "37575012"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "38092000"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "39173637"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "39225180"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "39333773"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "40250624"
        }
      ],
      "value": "Sensor component of NLRP3 inflammasomes; inflammasomes are supramolecular complexes that assemble in the cytosol in response to pathogens and other damage-associated signals and play critical roles in innate immunity and inflammation (PubMed:11786556, PubMed:15030775, PubMed:21880711). The core of NLRP3 inflammasomes consists of a signal sensor component (NLRP3), an adapter (PYCARD/ASC), which recruits an effector pro-inflammatory caspase (CASP1 and, possibly, CASP4 and CASP5) (PubMed:11786556, PubMed:15030775, PubMed:21880711). Homodecamer; inactive NLRP3 forms homodecameric double-ring cages that hide pyrin domains within NACHT-LRR rings to avoid premature activation (PubMed:35114687, PubMed:35254907). Interacts (via pyrin domain) with PYCARD/ASC (via pyrin domain); interaction is direct (PubMed:11786556, PubMed:27432880, PubMed:34341353, PubMed:35559676, PubMed:36142182, PubMed:36442502). Interacts (via LRR repeat domain) with NEK7 (via N-terminus); the interaction is required for the formation of the complex NLRP3:PYCARD, oligomerization of PYCARD/ASC and activation of CASP1 (PubMed:31189953, PubMed:36442502, PubMed:38092000, PubMed:39173637, PubMed:37575012). Interacts (via LRR repeat domain) with NR4A1/Nur77 (via N-terminus); the interaction is direct, requires activation of NR4A1 by its ligands NBRE-containing dsDNA and lipopolysaccharide, and stimulates the association of NLRP3 with NEK7 for non-canonical NLRP3 inflammasome activation (By similarity). Interacts with CARD8; leading to inhibit formation of the NLRP3 inflammasome (PubMed:24517500). Interacts with MEFV; this interaction targets NLRP3 to degradation by autophagy, hence preventing excessive IL1B- and IL18-mediated inflammation (PubMed:17431422, PubMed:26347139). Interacts with EIF2AK2/PKR; this interaction requires EIF2AK2 activity, is accompanied by EIF2AK2 autophosphorylation and promotes inflammasome assembly in response to specific stimuli (PubMed:22801494). Interacts with GBP5 (via DAPIN domain); this interaction promotes inflammasome assembly in response to microbial and soluble, but not crystalline, agents (PubMed:22461501). Interacts with PML (isoform PML-1) (via the leucine-rich repeat (LRR) domain); PML-mediated increase in NLRP3 inflammasome activation does not depend upon this interaction (PubMed:23430110). Interacts (via NACHT domain) with DHX33 (via DEAH box); NLRP3 activation in presence of cytosolic dsRNA is mediated by DHX33 (PubMed:23871209). Interacts (via NACHT and LRR domains) with ARRB2; this interaction is direct and inducible by polyunsaturated fatty acids (PUFAs) (PubMed:23809162). Interacts with PYDC5 (PubMed:24531343). Interacts (via NACHT domain) with DDX3X under both LPS-primed and inflammasome-activating conditions (By similarity). Interacts with IRF4 (via the LRR domain); this interaction is direct and is required for optimal IRF4 binding to IL4 promoter and efficient IL4 transactivation during differentiation of Th2 helper T cells (By similarity). Interacts with MAVS; promoting localization to mitochondria and activation of the NLRP3 inflammasome (PubMed:23582325). Interacts with MARK4; promoting localization of NLRP3 to the microtubule organizing center (MTOC) (PubMed:28656979). Interacts with TRIM50; this interaction also promotes NLRP3 oligomerization and subsequent inflammasome activation (By similarity). Interacts with IRGM; preventing NLRP3 inflammasome assembly and promoting NLRP3 degradation (PubMed:30612879). Interacts (via KFERQ-like motifs) with HSPA8/HSC70; promoting NLRP3 degradation by the chaperone-mediated autophagy pathway (PubMed:36586411). Interacts (via NACHT and LLR domains) with ABHD8; this interaction is enhanced in the presence of NLRP3 inflammasome inducers, such as ATP, nigericin, silica, or alum. Interaction with ABHD8 leads the recruitment of ZDHHC12, hence facilitating NLRP3 palmitoylation and degradation by the chaperone-mediated autophagy pathway (CMA), therefore attenuating NLRP3 inflammasome activation (PubMed:39225180). Interacts with ZNFX1; the interaction inhibits NLRP3 inflammasome activation by sequestering NLRP3 in the cytoplasm (PubMed:39333773). Interacts with FAM120A; this interaction inhibits inflammasome activation (PubMed:40250624)"
    }
  ],
  "commentType": "SUBUNIT"
}

(Microbial infection) Interacts with SARS coronavirus-2/SARS-CoV-2 N protein; the interaction is direct and promotes the binding of NLRP3 with PYCARD/ASC and facilitates NLRP3 inflammasome assembly [55]. This interaction disrupts the association between NLRP3 and ABHD8, enhancing NLRP3 stability, ultimately leading to increased inflammasome activation [65]

Experimental evidence 2 publications
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34341353"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "39225180"
        }
      ],
      "value": "(Microbial infection) Interacts with SARS coronavirus-2/SARS-CoV-2 N protein; the interaction is direct and promotes the binding of NLRP3 with PYCARD/ASC and facilitates NLRP3 inflammasome assembly (PubMed:34341353). This interaction disrupts the association between NLRP3 and ABHD8, enhancing NLRP3 stability, ultimately leading to increased inflammasome activation (PubMed:39225180)"
    }
  ],
  "commentType": "SUBUNIT"
}

(Microbial infection) Interacts with M.pneumoniae CARDS toxin, which ADP-ribosylates NLRP3

Experimental evidence 1 publication
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "25538194"
        }
      ],
      "value": "(Microbial infection) Interacts with M.pneumoniae CARDS toxin, which ADP-ribosylates NLRP3"
    }
  ],
  "commentType": "SUBUNIT"
}

(Microbial infection) Interacts with human cytomegalovirus protein US18; this interaction promotes inflammasome assembly

Experimental evidence 1 publication
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "40450990"
        }
      ],
      "value": "(Microbial infection) Interacts with human cytomegalovirus protein US18; this interaction promotes inflammasome assembly"
    }
  ],
  "commentType": "SUBUNIT"
}

Other association resources

Resource links only; their association networks and counts are not added to the partner table.

08

Structure

9MGY · Cryo-EM structure of Human NLRP3 complex with compound 1

ELECTRON MICROSCOPY · 2.9 Å

Recorded components

ComponentSpeciesChainsProtein identities
NACHT, LRR and PYD domains-containing protein 3protein · Entity 1Homo sapiensAQ96P20
ADENOSINE-5'-TRIPHOSPHATEligand · Entity 2BNo verified protein mapping
(2M)-2-(6-{[(3R)-1-methylpiperidin-3-yl]amino}pyridazin-3-yl)-5-(trifluoromethyl)phenolligand · Entity 3CNo verified protein mapping

Biological assemblies

Assembly 1 · author_and_software_defined_assembly
Recorded chains: A, B, C

Assembly membership does not establish direct binding. Observed residue coverage is checked against the loaded coordinates; it is not inferred from construct metadata.

Publication

Discovery of Potent and Brain-Penetrant Bicyclic NLRP3 Inhibitors with Peripheral and Central In Vivo Activity.

11/02/2025 · Read publication ↗

Detailed validation, construct lengths and deposition dates are not included in this published record. See the source record for those details.

PDB source record ↗

Structure references are from the dated source record. Opening another structure follows your existing Atlas account permissions.

Available structures 25

Scroll across the table for evidence and actions.

25 recorded rows

RecordEvidence typeMethodResolutionOpen
9MGYexperimentalEM2.90 AOpen in Atlas ↗
9MIGexperimentalEM3.60 AOpen in Atlas ↗
6NPYexperimentalEM3.80 AOpen in Atlas ↗
7PZCexperimentalEM3.90 AOpen in Atlas ↗
9MIEexperimentalEM3.93 AOpen in Atlas ↗
7VTPexperimentalEM3.23 AOpen in Atlas ↗
7ZGUexperimentalEM3.40 AOpen in Atlas ↗
8SWFexperimentalEM3.39 AOpen in Atlas ↗
8EJ4experimentalEM3.40 AOpen in Atlas ↗
9DH3experimentalEM3.76 AOpen in Atlas ↗
8SXNexperimentalEM4.04 AOpen in Atlas ↗
8SWKexperimentalEM4.32 AOpen in Atlas ↗
8WSMexperimentalX-ray2.70 AOpen in Atlas ↗
9GU4experimentalX-ray2.70 AOpen in Atlas ↗
9HG4experimentalX-ray2.77 AOpen in Atlas ↗
8RI2experimentalX-ray2.80 AOpen in Atlas ↗
7ALVexperimentalX-ray2.83 AOpen in Atlas ↗
9SFGexperimentalX-ray3.20 AOpen in Atlas ↗
8ZEMexperimentalX-ray3.32 AOpen in Atlas ↗
8ETRexperimentalEM3.50 AOpen in Atlas ↗
3QF2experimentalX-ray1.70 AOpen in Atlas ↗
8ERTexperimentalEM3.30 AOpen in Atlas ↗
7PZDexperimentalEM3.60 AOpen in Atlas ↗
2NAQexperimentalNMR-Open in Atlas ↗
AF-Q96P20-F1predictedAlphaFoldNot applicableOpen in Atlas ↗
09

Family & Domains

The pyrin domain (also called DAPIN domain or PYD) is involved in PYCARD/ASC-binding

Experimental evidence 1 publication
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "24630722"
        }
      ],
      "value": "The pyrin domain (also called DAPIN domain or PYD) is involved in PYCARD/ASC-binding"
    }
  ],
  "commentType": "DOMAIN"
}

The FISNA domain is a critical mediator of NLRP3 conformational during NLRP3 activation [59, 76]. It becomes ordered in its key regions during activation to stabilize the active NACHT conformation and mediate most interactions in the NLRP3 disk [76]

Experimental evidence 2 publications
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "34524838"
        },
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "36442502"
        }
      ],
      "value": "The FISNA domain is a critical mediator of NLRP3 conformational during NLRP3 activation (PubMed:34524838, PubMed:36442502). It becomes ordered in its key regions during activation to stabilize the active NACHT conformation and mediate most interactions in the NLRP3 disk (PubMed:36442502)"
    }
  ],
  "commentType": "DOMAIN"
}

The LRR domain mediates the interaction with IRF4, PML, NEK7 and NR4A1/Nur77

Experimental evidence 1 publication
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "23430110"
        }
      ],
      "value": "The LRR domain mediates the interaction with IRF4, PML, NEK7 and NR4A1/Nur77"
    }
  ],
  "commentType": "DOMAIN"
}

The KFERQ-like motifs mediate binding to HSPA8/HSC70 following NLRP3 paylmitoylation by ZDHHC12

Experimental evidence 1 publication
Evidence & references
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000269",
          "source": "PubMed",
          "id": "36586411"
        }
      ],
      "value": "The KFERQ-like motifs mediate binding to HSPA8/HSC70 following NLRP3 paylmitoylation by ZDHHC12"
    }
  ],
  "commentType": "DOMAIN"
}

Belongs to the NLRP family

Curator inference
Evidence & references
  • ECO:0000305
Complete source annotation
{
  "texts": [
    {
      "evidences": [
        {
          "evidenceCode": "ECO:0000305"
        }
      ],
      "value": "Belongs to the NLRP family"
    }
  ],
  "commentType": "SIMILARITY"
}

Domain architecture

Canonical sequence11036 aa

Canonical coordinates. Overlapping marks share a lane; individual records and evidence are in the tables below. Gaps in coverage are not selectable in 3D. Use the track links and tables for keyboard inspection.

Atlas domains, motifs & repeats 24

Scroll across the table for evidence and actions.

24 recorded rows

AnnotationPositionSource & interpretationInspect
DAPIN domainIPR0040201–93INTERPROdomain

The DAPIN (Domain in Apoptosis and INterferon response) domain is an 80-100- residue domain which is found in the N terminus of diverse vertebrate and vertebrate-specific viral proteins involved in apoptosis, cancer, inflammation, and immune response. The DAPIN domain can be found alone or in association with other domains like CARD, LRR, SPRY, Caspase or Zinc finger B-box.

Full source description

The DAPIN (Domain in Apoptosis and INterferon response) domain is an 80-100- residue domain which is found in the N terminus of diverse vertebrate and vertebrate-specific viral proteins involved in apoptosis, cancer, inflammation, and immune response. The DAPIN domain can be found alone or in association with other domains like CARD, LRR, SPRY, Caspase or Zinc finger B-box. It has been proposed that the DAPIN domain might have an adaptor function, coupling apoptosis and immune disorders. It has been shown that the DAPIN domain is a protein-protein interaction domain capable of binding to other DAPIN domains. Secondary structure predictions have identified the DAPIN domain as mostly α-helical and it has been suggested that it could belong to the DEATH- domain-fold superfamily, which includes the CARD, the DEATH domain (DD) and the DEATH effector domain (DED). The DAPIN domain has also been called pyrin domain, pyrin N-terminal homology domain (PYD) or PAAD (after the protein families pyrin, AIM, ASC death-domain- like).

Source entry ↗
No verified residues in this structure
NACHT-associated domainIPR029495139–210INTERPROdomain

This domain is frequently found associated with the NACHT domain ([interpro:IPR007111]) in fish and other vertebrates. Proteins containing this domain include NACHT, LRR and PYD domains-containing protein 3/12 (NLRP3/12).

Full source description

This domain is frequently found associated with the NACHT domain ([interpro:IPR007111]) in fish and other vertebrates. Proteins containing this domain include NACHT, LRR and PYD domains-containing protein 3/12 (NLRP3/12). In humans, NLRP3 (also known as PYPAF1) may function as an inducer of apoptosis. NLRP12 is a non-inflammasome NLR (nucleotide-binding domain and leucine-rich repeat-containing receptors) that has been implicated in the regulation of Toll-like receptor-dependent nuclear factor-kappaB activation.

Source entry ↗
No verified residues in this structure
NACHT nucleoside triphosphataseIPR007111220–536INTERPROdomain

The NACHT domain is a 300 to 400 residue predicted nucleoside triphosphatase (NTPase) domain, which is found in animal, fungal and bacterial proteins. The NACHT domain has been named after NAIP, CIITA, HET-E and TP1.

Full source description

The NACHT domain is a 300 to 400 residue predicted nucleoside triphosphatase (NTPase) domain, which is found in animal, fungal and bacterial proteins. The NACHT domain has been named after NAIP, CIITA, HET-E and TP1. It is found in association with other domains, such as the CARD domain ([interpro:IPR001315]), the DAPIN domain ([interpro:IPR004020]), the HEAT repeat ([interpro:IPR004155]), the WD repeat ([interpro:IPR001680]), the leucine-rich repeat (LRR) or the BIR repeat ([interpro:IPR001370]). The NACHT domain consists of seven distinct conserved motifs, including the ATP/GTPase specific P-loop, the Mg(2+)-binding site (Walker A and B motifs, respectively) and five more specific motifs. The unique features of the NACHT domain include the prevalence of 'tiny' residues (glycine, alanine or serine) directly C-terminal of the Mg(2+)-coordinating aspartate in the Walker B motif, in place of a second acidic residue prevalent in other NTPases. A second acidic residue is typically found in the NACHT-containing proteins two positions downstream. Furthermore, the distal motif VII contains a conserved pattern of polar, aromatic and hydrophobic residues that is not seen in any other NTPase family.

Source entry ↗
No verified residues in this structure
NOD1/2, winged helix domainIPR041075466–520INTERPROdomain

This winged helix domain is found in the NOD1, NOD2 and related proteins that play a role in immune response. In NLRP3, this domain is important for ATB binding.

Source entry ↗
No verified residues in this structure
NACHT, LRR and PYD domains-containing protein, helical domain HD2IPR041267522–645INTERPROdomain

This entry represents the second of two helical domains (HD2) found in the NLRC proteins, the NOD2 protein and NACHT, LRR and PYD domains-containing proteins.

Source entry ↗
No verified residues in this structure
LRR_RIcd00116575–951CDDdomain

Leucine-rich repeats (LRRs), ribonuclease inhibitor (RI)-like subfamily. LRRs are 20-29 residue sequence motifs present in many proteins that participate in protein-protein interactions and have different functions and cellular locations.

Full source description

Leucine-rich repeats (LRRs), ribonuclease inhibitor (RI)-like subfamily. LRRs are 20-29 residue sequence motifs present in many proteins that participate in protein-protein interactions and have different functions and cellular locations. LRRs correspond to structural units consisting of a beta strand (LxxLxLxxN/CxL conserved pattern) and an alpha helix. This alignment contains 12 strands corresponding to 11 full repeats, consistent with the extent observed in the subfamily acting as Ran GTPase Activating Proteins (RanGAP1).

Source entry ↗
No verified residues in this structure
LRR RegionCLUSTER_LRR_740_990740–990ALPHASUITEdomain

9 LRR repeats grouped into a tandem region.

No verified residues in this structure
Leucine-rich repeatIPR001611740–758INTERPROrepeat

Leucine-rich repeats (LRR) consist of 2-45 motifs of 20-30 amino acids in length that generally folds into an arc or horseshoe shape. LRRs occur in proteins ranging from viruses to eukaryotes, and appear to provide a structural framework for the formation of protein-protein interactions.Proteins containing LRRs include tyrosine kinase receptors, cell-adhesion molecules, virulence factors, and extracellular matrix-binding glycoproteins, and are involved in a variety of biological processes, including signal transduction, cell adhesion, DNA repair, recombination, transcription, RNA processing, disease resistance, apoptosis, and the immune response.

Full source description

Leucine-rich repeats (LRR) consist of 2-45 motifs of 20-30 amino acids in length that generally folds into an arc or horseshoe shape. LRRs occur in proteins ranging from viruses to eukaryotes, and appear to provide a structural framework for the formation of protein-protein interactions.Proteins containing LRRs include tyrosine kinase receptors, cell-adhesion molecules, virulence factors, and extracellular matrix-binding glycoproteins, and are involved in a variety of biological processes, including signal transduction, cell adhesion, DNA repair, recombination, transcription, RNA processing, disease resistance, apoptosis, and the immune response. Sequence analyses of LRR proteins suggested the existence of several different subfamilies of LRRs. The significance of this classification is that repeats from different subfamilies never occur simultaneously and have most probably evolved independently. It is, however, now clear that all major classes of LRR have curved horseshoe structures with a parallel β sheet on the concave side and mostly helical elements on the convex side. At least six families of LRR proteins, characterised by different lengths and consensus sequences of the repeats, have been identified. Eleven-residue segments of the LRRs (LxxLxLxxN/CxL), corresponding to the β-strand and adjacent loop regions, are conserved in LRR proteins, whereas the remaining parts of the repeats (herein termed variable) may be very different. Despite the differences, each of the variable parts contains two half-turns at both ends and a "linear" segment (as the chain follows a linear path overall), usually formed by a helix, in the middle. The concave face and the adjacent loops are the most common protein interaction surfaces on LRR proteins. 3D structure of some LRR proteins-ligand complexes show that the concave surface of LRR domain is ideal for interaction with α-helix, thus supporting earlier conclusions that the elongated and curved LRR structure provides an outstanding framework for achieving diverse protein-protein interactions. Molecular modeling suggests that the conserved pattern LxxLxL, which is shorter than the previously proposed LxxLxLxxN/CxL is sufficient to impart the characteristic horseshoe curvature to proteins with 20-to 30-residue repeats.

Source entry ↗
No verified residues in this structure
Leucine rich repeat, ribonuclease inhibitor typeSM00368769–796SMARTdomain

No description available for this entry.

Source entry ↗
No verified residues in this structure
LRR 2UNI_REPEAT_771_792771–792UNIPROTrepeat

LRR 2

Source entry ↗
No verified residues in this structure
Leucine-rich repeatIPR001611796–819INTERPROrepeat

Leucine-rich repeats (LRR) consist of 2-45 motifs of 20-30 amino acids in length that generally folds into an arc or horseshoe shape. LRRs occur in proteins ranging from viruses to eukaryotes, and appear to provide a structural framework for the formation of protein-protein interactions.Proteins containing LRRs include tyrosine kinase receptors, cell-adhesion molecules, virulence factors, and extracellular matrix-binding glycoproteins, and are involved in a variety of biological processes, including signal transduction, cell adhesion, DNA repair, recombination, transcription, RNA processing, disease resistance, apoptosis, and the immune response.

Full source description

Leucine-rich repeats (LRR) consist of 2-45 motifs of 20-30 amino acids in length that generally folds into an arc or horseshoe shape. LRRs occur in proteins ranging from viruses to eukaryotes, and appear to provide a structural framework for the formation of protein-protein interactions.Proteins containing LRRs include tyrosine kinase receptors, cell-adhesion molecules, virulence factors, and extracellular matrix-binding glycoproteins, and are involved in a variety of biological processes, including signal transduction, cell adhesion, DNA repair, recombination, transcription, RNA processing, disease resistance, apoptosis, and the immune response. Sequence analyses of LRR proteins suggested the existence of several different subfamilies of LRRs. The significance of this classification is that repeats from different subfamilies never occur simultaneously and have most probably evolved independently. It is, however, now clear that all major classes of LRR have curved horseshoe structures with a parallel β sheet on the concave side and mostly helical elements on the convex side. At least six families of LRR proteins, characterised by different lengths and consensus sequences of the repeats, have been identified. Eleven-residue segments of the LRRs (LxxLxLxxN/CxL), corresponding to the β-strand and adjacent loop regions, are conserved in LRR proteins, whereas the remaining parts of the repeats (herein termed variable) may be very different. Despite the differences, each of the variable parts contains two half-turns at both ends and a "linear" segment (as the chain follows a linear path overall), usually formed by a helix, in the middle. The concave face and the adjacent loops are the most common protein interaction surfaces on LRR proteins. 3D structure of some LRR proteins-ligand complexes show that the concave surface of LRR domain is ideal for interaction with α-helix, thus supporting earlier conclusions that the elongated and curved LRR structure provides an outstanding framework for achieving diverse protein-protein interactions. Molecular modeling suggests that the conserved pattern LxxLxL, which is shorter than the previously proposed LxxLxLxxN/CxL is sufficient to impart the characteristic horseshoe curvature to proteins with 20-to 30-residue repeats.

Source entry ↗
No verified residues in this structure
Leucine rich repeat, ribonuclease inhibitor typeSM00368797–824SMARTdomain

No description available for this entry.

Source entry ↗
No verified residues in this structure
Leucine rich repeat, ribonuclease inhibitor typeSM00368826–853SMARTdomain

No description available for this entry.

Source entry ↗
No verified residues in this structure
LRR 4UNI_REPEAT_828_849828–849UNIPROTrepeat

LRR 4

Source entry ↗
No verified residues in this structure
Leucine rich repeat, ribonuclease inhibitor typeSM00368854–881SMARTdomain

No description available for this entry.

Source entry ↗
No verified residues in this structure
Leucine-rich repeatIPR001611854–873INTERPROrepeat

Leucine-rich repeats (LRR) consist of 2-45 motifs of 20-30 amino acids in length that generally folds into an arc or horseshoe shape. LRRs occur in proteins ranging from viruses to eukaryotes, and appear to provide a structural framework for the formation of protein-protein interactions.Proteins containing LRRs include tyrosine kinase receptors, cell-adhesion molecules, virulence factors, and extracellular matrix-binding glycoproteins, and are involved in a variety of biological processes, including signal transduction, cell adhesion, DNA repair, recombination, transcription, RNA processing, disease resistance, apoptosis, and the immune response.

Full source description

Leucine-rich repeats (LRR) consist of 2-45 motifs of 20-30 amino acids in length that generally folds into an arc or horseshoe shape. LRRs occur in proteins ranging from viruses to eukaryotes, and appear to provide a structural framework for the formation of protein-protein interactions.Proteins containing LRRs include tyrosine kinase receptors, cell-adhesion molecules, virulence factors, and extracellular matrix-binding glycoproteins, and are involved in a variety of biological processes, including signal transduction, cell adhesion, DNA repair, recombination, transcription, RNA processing, disease resistance, apoptosis, and the immune response. Sequence analyses of LRR proteins suggested the existence of several different subfamilies of LRRs. The significance of this classification is that repeats from different subfamilies never occur simultaneously and have most probably evolved independently. It is, however, now clear that all major classes of LRR have curved horseshoe structures with a parallel β sheet on the concave side and mostly helical elements on the convex side. At least six families of LRR proteins, characterised by different lengths and consensus sequences of the repeats, have been identified. Eleven-residue segments of the LRRs (LxxLxLxxN/CxL), corresponding to the β-strand and adjacent loop regions, are conserved in LRR proteins, whereas the remaining parts of the repeats (herein termed variable) may be very different. Despite the differences, each of the variable parts contains two half-turns at both ends and a "linear" segment (as the chain follows a linear path overall), usually formed by a helix, in the middle. The concave face and the adjacent loops are the most common protein interaction surfaces on LRR proteins. 3D structure of some LRR proteins-ligand complexes show that the concave surface of LRR domain is ideal for interaction with α-helix, thus supporting earlier conclusions that the elongated and curved LRR structure provides an outstanding framework for achieving diverse protein-protein interactions. Molecular modeling suggests that the conserved pattern LxxLxL, which is shorter than the previously proposed LxxLxLxxN/CxL is sufficient to impart the characteristic horseshoe curvature to proteins with 20-to 30-residue repeats.

Source entry ↗
No verified residues in this structure
Leucine rich repeat, ribonuclease inhibitor typeSM00368883–910SMARTdomain

No description available for this entry.

Source entry ↗
No verified residues in this structure
LRR 6UNI_REPEAT_885_906885–906UNIPROTrepeat

LRR 6

Source entry ↗
No verified residues in this structure
Leucine rich repeat, ribonuclease inhibitor typeSM00368911–938SMARTdomain

No description available for this entry.

Source entry ↗
No verified residues in this structure
Leucine-rich repeatIPR001611911–933INTERPROrepeat

Leucine-rich repeats (LRR) consist of 2-45 motifs of 20-30 amino acids in length that generally folds into an arc or horseshoe shape. LRRs occur in proteins ranging from viruses to eukaryotes, and appear to provide a structural framework for the formation of protein-protein interactions.Proteins containing LRRs include tyrosine kinase receptors, cell-adhesion molecules, virulence factors, and extracellular matrix-binding glycoproteins, and are involved in a variety of biological processes, including signal transduction, cell adhesion, DNA repair, recombination, transcription, RNA processing, disease resistance, apoptosis, and the immune response.

Full source description

Leucine-rich repeats (LRR) consist of 2-45 motifs of 20-30 amino acids in length that generally folds into an arc or horseshoe shape. LRRs occur in proteins ranging from viruses to eukaryotes, and appear to provide a structural framework for the formation of protein-protein interactions.Proteins containing LRRs include tyrosine kinase receptors, cell-adhesion molecules, virulence factors, and extracellular matrix-binding glycoproteins, and are involved in a variety of biological processes, including signal transduction, cell adhesion, DNA repair, recombination, transcription, RNA processing, disease resistance, apoptosis, and the immune response. Sequence analyses of LRR proteins suggested the existence of several different subfamilies of LRRs. The significance of this classification is that repeats from different subfamilies never occur simultaneously and have most probably evolved independently. It is, however, now clear that all major classes of LRR have curved horseshoe structures with a parallel β sheet on the concave side and mostly helical elements on the convex side. At least six families of LRR proteins, characterised by different lengths and consensus sequences of the repeats, have been identified. Eleven-residue segments of the LRRs (LxxLxLxxN/CxL), corresponding to the β-strand and adjacent loop regions, are conserved in LRR proteins, whereas the remaining parts of the repeats (herein termed variable) may be very different. Despite the differences, each of the variable parts contains two half-turns at both ends and a "linear" segment (as the chain follows a linear path overall), usually formed by a helix, in the middle. The concave face and the adjacent loops are the most common protein interaction surfaces on LRR proteins. 3D structure of some LRR proteins-ligand complexes show that the concave surface of LRR domain is ideal for interaction with α-helix, thus supporting earlier conclusions that the elongated and curved LRR structure provides an outstanding framework for achieving diverse protein-protein interactions. Molecular modeling suggests that the conserved pattern LxxLxL, which is shorter than the previously proposed LxxLxLxxN/CxL is sufficient to impart the characteristic horseshoe curvature to proteins with 20-to 30-residue repeats.

Source entry ↗
No verified residues in this structure
Leucine rich repeat, ribonuclease inhibitor typeSM00368940–967SMARTdomain

No description available for this entry.

Source entry ↗
No verified residues in this structure
LRR 8UNI_REPEAT_942_963942–963UNIPROTrepeat

LRR 8

Source entry ↗
No verified residues in this structure
Leucine rich repeat, ribonuclease inhibitor typeSM00368968–995SMARTdomain

No description available for this entry.

Source entry ↗
No verified residues in this structure
Leucine-rich repeatIPR001611968–990INTERPROrepeat

Leucine-rich repeats (LRR) consist of 2-45 motifs of 20-30 amino acids in length that generally folds into an arc or horseshoe shape. LRRs occur in proteins ranging from viruses to eukaryotes, and appear to provide a structural framework for the formation of protein-protein interactions.Proteins containing LRRs include tyrosine kinase receptors, cell-adhesion molecules, virulence factors, and extracellular matrix-binding glycoproteins, and are involved in a variety of biological processes, including signal transduction, cell adhesion, DNA repair, recombination, transcription, RNA processing, disease resistance, apoptosis, and the immune response.

Full source description

Leucine-rich repeats (LRR) consist of 2-45 motifs of 20-30 amino acids in length that generally folds into an arc or horseshoe shape. LRRs occur in proteins ranging from viruses to eukaryotes, and appear to provide a structural framework for the formation of protein-protein interactions.Proteins containing LRRs include tyrosine kinase receptors, cell-adhesion molecules, virulence factors, and extracellular matrix-binding glycoproteins, and are involved in a variety of biological processes, including signal transduction, cell adhesion, DNA repair, recombination, transcription, RNA processing, disease resistance, apoptosis, and the immune response. Sequence analyses of LRR proteins suggested the existence of several different subfamilies of LRRs. The significance of this classification is that repeats from different subfamilies never occur simultaneously and have most probably evolved independently. It is, however, now clear that all major classes of LRR have curved horseshoe structures with a parallel β sheet on the concave side and mostly helical elements on the convex side. At least six families of LRR proteins, characterised by different lengths and consensus sequences of the repeats, have been identified. Eleven-residue segments of the LRRs (LxxLxLxxN/CxL), corresponding to the β-strand and adjacent loop regions, are conserved in LRR proteins, whereas the remaining parts of the repeats (herein termed variable) may be very different. Despite the differences, each of the variable parts contains two half-turns at both ends and a "linear" segment (as the chain follows a linear path overall), usually formed by a helix, in the middle. The concave face and the adjacent loops are the most common protein interaction surfaces on LRR proteins. 3D structure of some LRR proteins-ligand complexes show that the concave surface of LRR domain is ideal for interaction with α-helix, thus supporting earlier conclusions that the elongated and curved LRR structure provides an outstanding framework for achieving diverse protein-protein interactions. Molecular modeling suggests that the conserved pattern LxxLxL, which is shorter than the previously proposed LxxLxLxxN/CxL is sufficient to impart the characteristic horseshoe curvature to proteins with 20-to 30-residue repeats.

Source entry ↗
No verified residues in this structure

UniProt domains, repeats & motifs 16

Scroll across the table for evidence and actions.

16 recorded rows

FeaturePositionDescriptionEvidenceInspect
Domain1–93Pyrin
Sequence analysis
Evidence & references
  • ECO:0000255 PROSITE-ProRule:PRU00061
No verified residues in this structure
Domain140–210FISNA
Sequence analysis
Evidence & references
  • ECO:0000255
No verified residues in this structure
Domain220–536NACHT
Sequence analysis
Evidence & references
  • ECO:0000255 PROSITE-ProRule:PRU00136
No verified residues in this structure
Repeat742–762LRR 1
Evidence & references

No separate evidence record is supplied for this statement.

No verified residues in this structure
Repeat771–792LRR 2
Evidence & references

No separate evidence record is supplied for this statement.

No verified residues in this structure
Repeat799–819LRR 3
Evidence & references

No separate evidence record is supplied for this statement.

No verified residues in this structure
Repeat828–849LRR 4
Evidence & references

No separate evidence record is supplied for this statement.

No verified residues in this structure
Repeat856–876LRR 5
Evidence & references

No separate evidence record is supplied for this statement.

No verified residues in this structure
Repeat885–906LRR 6
Evidence & references

No separate evidence record is supplied for this statement.

No verified residues in this structure
Repeat913–933LRR 7
Evidence & references

No separate evidence record is supplied for this statement.

No verified residues in this structure
Repeat942–963LRR 8
Evidence & references

No separate evidence record is supplied for this statement.

No verified residues in this structure
Repeat970–991LRR 9
Evidence & references

No separate evidence record is supplied for this statement.

No verified residues in this structure
Motif355–359KFERQ-like motif 1
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Motif603–607KFERQ-like motif 2
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Motif798–802KFERQ-like motif 3
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure
Motif991–995KFERQ-like motif 4
Experimental evidence 1 publication
Evidence & references
No verified residues in this structure

Functional sites 3

Scroll across the table for evidence and actions.

3 recorded rows

FeaturePositionDescriptionEvidenceInspect
Binding site169Binding site
Curator inference 3 publications
Evidence & references
No verified residues in this structure
Binding site226–234Binding site
Sequence analysisExperimental evidenceCurator inference 6 publications
Evidence & references
No verified residues in this structure
Binding site522Binding site
Curator inference 4 publications
Evidence & references
No verified residues in this structure

Sequence regions 1

Scroll across the table for evidence and actions.

1 recorded rows

FeaturePositionDescriptionEvidenceInspect
Region131–134Required for binding to phosphatidylinositol 4-phosphate (PtdIns4P)
By similarity
Evidence & references
  • ECO:0000250 UniProtKB:Q8R4B8
No verified residues in this structure
10

Sequence & Isoforms

Sequence & isoforms

UniProt’s canonical sequence is its selected representative. It is not necessarily the dominant isoform in every tissue.

UniProt’s canonical sequence · Q96P20-11036 aa118,173 Da · source sequence mass

The mass describes this unmodified source sequence, not every mature or modified product.

MKMASTRCKLARYLEDLEDVDLKKFKMHLEDYPPQKGCIPLPRGQTEKADHVDLATLMIDFNGEEKAWAMAVWIFAAINRRDLYEKAKRDEPKWGSDNARVSNPTVICQEDSIEEEWMGLLEYLSRISICKMKKDYRKKYRKYVRSRFQCIEDRNARLGESVSLNKRYTRLRLIKEHRSQQEREQELLAIGKTKTCESPVSPIKMELLFDPDDEHSEPVHTVVFQGAAGIGKTILARKMMLDWASGTLYQDRFDYLFYIHCREVSLVTQRSLGDLIMSCCPDPNPPIHKIVRKPSRILFLMDGFDELQGAFDEHIGPLCTDWQKAERGDILLSSLIRKKLLPEASLLITTRPVALEKLQHLLDHPRHVEILGFSEAKRKEYFFKYFSDEAQARAAFSLIQENEVLFTMCFIPLVCWIVCTGLKQQMESGKSLAQTSKTTTAVYVFFLSSLLQPRGGSQEHGLCAHLWGLCSLAADGIWNQKILFEESDLRNHGLQKADVSAFLRMNLFQKEVDCEKFYSFIHMTFQEFFAAMYYLLEEEKEGRTNVPGSRLKLPSRDVTVLLENYGKFEKGYLIFVVRFLFGLVNQERTSYLEKKLSCKISQQIRLELLKWIEVKAKAKKLQIQPSQLELFYCLYEMQEEDFVQRAMDYFPKIEINLSTRMDHMVSSFCIENCHRVESLSLGFLHNMPKEEEEEEKEGRHLDMVQCVLPSSSHAACSHGLVNSHLTSSFCRGLFSVLSTSQSLTELDLSDNSLGDPGMRVLCETLQHPGCNIRRLWLGRCGLSHECCFDISLVLSSNQKLVELDLSDNALGDFGIRLLCVGLKHLLCNLKKLWLVSCCLTSACCQDLASVLSTSHSLTRLYVGENALGDSGVAILCEKAKNPQCNLQKLGLVNSGLTSVCCSALSSVLSTNQNLTHLYLRGNTLGDKGIKLLCEGLLHPDCKLQVLELDNCNLTSHCCWDLSTLLTSSQSLRKLSLGNNDLGDLGVMMFCEVLKQQSCLLQNLGLSEMYFNYETKSALETLQEEKPELTVVFEPSW

Source isoform notes & selection

Alternative splicing

Complete source annotation
{
  "commentType": "ALTERNATIVE PRODUCTS",
  "events": [
    "Alternative splicing"
  ],
  "isoforms": [
    {
      "name": {
        "value": "2"
      },
      "isoformIds": [
        "Q96P20-1"
      ],
      "isoformSequenceStatus": "Displayed"
    },
    {
      "name": {
        "value": "1"
      },
      "isoformIds": [
        "Q96P20-2"
      ],
      "sequenceIds": [
        "VSP_005520",
        "VSP_005521"
      ],
      "isoformSequenceStatus": "Described"
    },
    {
      "name": {
        "value": "3"
      },
      "isoformIds": [
        "Q96P20-3"
      ],
      "sequenceIds": [
        "VSP_005519"
      ],
      "isoformSequenceStatus": "Described"
    },
    {
      "name": {
        "value": "4"
      },
      "isoformIds": [
        "Q96P20-4"
      ],
      "sequenceIds": [
        "VSP_005520"
      ],
      "isoformSequenceStatus": "Described"
    },
    {
      "name": {
        "value": "5"
      },
      "isoformIds": [
        "Q96P20-5"
      ],
      "sequenceIds": [
        "VSP_005521"
      ],
      "isoformSequenceStatus": "Described"
    },
    {
      "name": {
        "value": "6"
      },
      "isoformIds": [
        "Q96P20-6"
      ],
      "sequenceIds": [
        "VSP_053714"
      ],
      "isoformSequenceStatus": "Described"
    }
  ]
}
  • Q96P20-1 · 2 · Displayed
    Complete source annotation
    {
      "name": {
        "value": "2"
      },
      "isoformIds": [
        "Q96P20-1"
      ],
      "isoformSequenceStatus": "Displayed"
    }
  • Q96P20-2 · 1 · Described · VSP_005520, VSP_005521
    Complete source annotation
    {
      "name": {
        "value": "1"
      },
      "isoformIds": [
        "Q96P20-2"
      ],
      "sequenceIds": [
        "VSP_005520",
        "VSP_005521"
      ],
      "isoformSequenceStatus": "Described"
    }
  • Q96P20-3 · 3 · Described · VSP_005519
    Complete source annotation
    {
      "name": {
        "value": "3"
      },
      "isoformIds": [
        "Q96P20-3"
      ],
      "sequenceIds": [
        "VSP_005519"
      ],
      "isoformSequenceStatus": "Described"
    }
  • Q96P20-4 · 4 · Described · VSP_005520
    Complete source annotation
    {
      "name": {
        "value": "4"
      },
      "isoformIds": [
        "Q96P20-4"
      ],
      "sequenceIds": [
        "VSP_005520"
      ],
      "isoformSequenceStatus": "Described"
    }
  • Q96P20-5 · 5 · Described · VSP_005521
    Complete source annotation
    {
      "name": {
        "value": "5"
      },
      "isoformIds": [
        "Q96P20-5"
      ],
      "sequenceIds": [
        "VSP_005521"
      ],
      "isoformSequenceStatus": "Described"
    }
  • Q96P20-6 · 6 · Described · VSP_053714
    Complete source annotation
    {
      "name": {
        "value": "6"
      },
      "isoformIds": [
        "Q96P20-6"
      ],
      "sequenceIds": [
        "VSP_053714"
      ],
      "isoformSequenceStatus": "Described"
    }

Isoform sequence differences 4

Scroll across the table for evidence and actions.

4 recorded rows

FeaturePositionDescriptionEvidenceInspect
Alternative sequenceVSP_005519720–1036in isoform 3
Published statement 1 publication
Evidence & references
No verified residues in this structure
Alternative sequenceVSP_005520721–777in isoform 1 and isoform 4
Published statement 6 publications
Evidence & references
No verified residues in this structure
Alternative sequenceVSP_053714776–796in isoform 6
WLGRCGLSHECCFDISLVLSS → C
Published statement 1 publication
Evidence & references
No verified residues in this structure
Alternative sequenceVSP_005521836–892in isoform 1 and isoform 5
Published statement 5 publications
Evidence & references
No verified residues in this structure

Sequence conflicts & cautions 7

Scroll across the table for evidence and actions.

7 recorded rows

FeaturePositionDescriptionEvidenceInspect
Sequence conflict167in Ref. 2; AAL78632/AAM14669/AAL14640
R → L
Curator inference
Evidence & references
  • ECO:0000305
No verified residues in this structure
Sequence conflict323in Ref. 2; AAL78632/AAM14669/AAL14640
Q → H
Curator inference
Evidence & references
  • ECO:0000305
No verified residues in this structure
Sequence conflict439in Ref. 10; AAC39910
T → S
Curator inference
Evidence & references
  • ECO:0000305
No verified residues in this structure
Sequence conflict523in Ref. 5; BAG37494
M → V
Curator inference
Evidence & references
  • ECO:0000305
No verified residues in this structure
Sequence conflict599in Ref. 10; AAC39910
K → M
Curator inference
Evidence & references
  • ECO:0000305
No verified residues in this structure
Sequence conflict617in Ref. 2; AAL78632/AAM14669/AAL14640
K → N
Curator inference
Evidence & references
  • ECO:0000305
No verified residues in this structure
Sequence conflict622–623in Ref. 10; AAC39910
QI → HD
Curator inference
Evidence & references
  • ECO:0000305
No verified residues in this structure
Frameshift

Source sequence: AAC39910.1

Curator inference
Evidence & references
  • ECO:0000305
Erroneous initiation

Source sequence: AAL12497.1

Truncated N-terminus.

Curator inference
Evidence & references
  • ECO:0000305
Erroneous initiation

Source sequence: AAL12498.1

Truncated N-terminus.

Curator inference
Evidence & references
  • ECO:0000305
Erroneous initiation

Source sequence: AAL33908.1

Truncated N-terminus.

Curator inference
Evidence & references
  • ECO:0000305
Erroneous initiation

Source sequence: AAL65136.1

Truncated N-terminus.

Curator inference
Evidence & references
  • ECO:0000305
Erroneous initiation

Source sequence: BAD92128.1

Truncated N-terminus.

Curator inference
Evidence & references
  • ECO:0000305
Erroneous initiation

Source sequence: BAG37494.1

Truncated N-terminus.

Curator inference
Evidence & references
  • ECO:0000305

Recorded secondary structure 104

Scroll across the table for evidence and actions.

104 recorded rows

FeaturePositionDescriptionEvidenceInspect
Helix6–15Helix
Evidence & references
  • ECO:0007829 PDB:3QF2
No verified residues in this structure
Helix19–30Helix
Evidence & references
  • ECO:0007829 PDB:3QF2
No verified residues in this structure
Beta strand34–37Beta strand
Evidence & references
  • ECO:0007829 PDB:3QF2
No verified residues in this structure
Helix38–42Helix
Evidence & references
  • ECO:0007829 PDB:2NAQ
No verified residues in this structure
Helix43–48Helix
Evidence & references
  • ECO:0007829 PDB:3QF2
No verified residues in this structure
Helix51–62Helix
Evidence & references
  • ECO:0007829 PDB:3QF2
No verified residues in this structure
Helix64–77Helix
Evidence & references
  • ECO:0007829 PDB:3QF2
No verified residues in this structure
Helix81–89Helix
Evidence & references
  • ECO:0007829 PDB:3QF2
No verified residues in this structure
Helix104–109Helix
Evidence & references
  • ECO:0007829 PDB:3QF2
No verified residues in this structure
Helix136–147Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand149–151Beta strand
Evidence & references
  • ECO:0007829 PDB:9HG4
No verified residues in this structure
Turn158–160Turn
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix164–167Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand172–175Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix180–192Helix
Evidence & references
  • ECO:0007829 PDB:8EJ4
No verified residues in this structure
Helix205–209Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand212–214Beta strand
Evidence & references
  • ECO:0007829 PDB:9HG4
No verified residues in this structure
Turn217–220Turn
Evidence & references
  • ECO:0007829 PDB:7VTP
No verified residues in this structure
Beta strand221–225Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix232–244Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand247–249Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Turn250–252Turn
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand254–260Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix261–263Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand266–270Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix272–278Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand280–284Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix287–290Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix294–296Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand297–302Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix304–306Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand308–313Beta strand
Evidence & references
  • ECO:0007829 PDB:7VTP
No verified residues in this structure
Beta strand324–326Beta strand
Evidence & references
  • ECO:0007829 PDB:9SFG
No verified residues in this structure
Helix328–336Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand340–343Beta strand
Evidence & references
  • ECO:0007829 PDB:7ZGU
No verified residues in this structure
Beta strand344–350Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix352–354Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix355–359Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand363–372Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix375–385Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand386–388Beta strand
Evidence & references
  • ECO:0007829 PDB:7ALV
No verified residues in this structure
Helix389–401Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix403–408Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix412–427Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand428–430Beta strand
Evidence & references
  • ECO:0007829 PDB:7ALV
No verified residues in this structure
Helix432–434Helix
Evidence & references
  • ECO:0007829 PDB:8EJ4
No verified residues in this structure
Helix439–449Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Turn452–454Turn
Evidence & references
  • ECO:0007829 PDB:7ZGU
No verified residues in this structure
Turn462–464Turn
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix466–478Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand482–484Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix486–491Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix496–504Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand507–512Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand515–522Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix523–533Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix541–543Helix
Evidence & references
  • ECO:0007829 PDB:8SWF
No verified residues in this structure
Helix558–563Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Turn564–566Turn
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix568–570Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Turn571–573Turn
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix574–584Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix591–594Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix598–617Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand621–625Beta strand
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix627–637Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix640–647Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Beta strand651–657Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix660–671Helix
Evidence & references
  • ECO:0007829 PDB:9GU4
No verified residues in this structure
Helix672–674Helix
Evidence & references
  • ECO:0007829 PDB:8ETR
No verified residues in this structure
Beta strand678–683Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix728–730Helix
Evidence & references
  • ECO:0007829 PDB:8SWF
No verified residues in this structure
Helix731–737Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand745–747Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix755–765Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand774–776Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand778–780Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix786–794Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand802–804Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand807–809Beta strand
Evidence & references
  • ECO:0007829 PDB:8SWF
No verified residues in this structure
Helix812–822Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand824–826Beta strand
Evidence & references
  • ECO:0007829 PDB:7ZGU
No verified residues in this structure
Beta strand831–833Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix841–843Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix844–853Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand859–861Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand864–866Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix869–879Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand888–890Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix898–900Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix901–910Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand916–918Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix925–936Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand938–940Beta strand
Evidence & references
  • ECO:0007829 PDB:7ZGU
No verified residues in this structure
Beta strand945–948Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix955–957Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix958–965Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand973–976Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand978–980Beta strand
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Helix983–992Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Turn993–996Turn
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand1002–1004Beta strand
Evidence & references
  • ECO:0007829 PDB:7VTP
No verified residues in this structure
Helix1012–1024Helix
Evidence & references
  • ECO:0007829 PDB:9MGY
No verified residues in this structure
Beta strand1028–1031Beta strand
Evidence & references
  • ECO:0007829 PDB:7VTP
No verified residues in this structure
12

Homologs

OMA orthologs

Evolutionary relationships assigned by OMA, kept separate from sequence clusters. “1:1” describes an orthology relationship, not percentage identity.

OMA data was unavailable during recording. This does not mean there are no orthologs.

13

Sources & References

Scientific descriptions and evidence come from the named sources. Atlas assembles the presentation and verifies residue mappings; it does not independently curate these claims.

Source dates & provenance

Recorded 2026-11-10. Source dates and identifiers are retained below.

Publications in this UniProt entry

1 · Mutation of a new gene encoding a putative pyrin-like protein causes familial cold autoinflammatory syndrome and Muckle-Wells syndrome.

2001 · Nat. Genet.

PubMed 11687797 ↗
Scope & authors

NUCLEOTIDE SEQUENCE [GENOMIC DNA / MRNA] (ISOFORMS 1 AND 2); VARIANTS FCAS1 MET-200; VAL-441 AND GLY-629; VARIANT MWS VAL-354

Hoffman H.M., Mueller J.L., Broide D.H., Wanderer A.A., Kolodner R.D.

2 · Association of mutations in the NALP3/CIAS1/PYPAF1 gene with a broad phenotype including recurrent fever, cold sensitivity, sensorineural deafness, and AA amyloidosis.

2002 · Arthritis Rheum.

PubMed 12355493 ↗
Scope & authors

NUCLEOTIDE SEQUENCE [MRNA] (ISOFORMS 1; 2 AND 3); VARIANT MWS MET-200; VARIANTS FCAS1/MWS TRP-262 AND PRO-307

Aganna E., Martinon F., Hawkins P.N., Ross J.B., Swan D.C., Booth D.R., Lachmann H.J., Gaudet R., Woo P., Feighery C., Cotter F.E., Thome M., Hitman G.A., Tschopp J., McDermott M.F.

3 · PYPAF1: a PYRIN-containing APAF1-like protein that assembles with ASC and activates NF-kB.

2002 · J. Biol. Chem.

PubMed 11786556 ↗
Scope & authors

NUCLEOTIDE SEQUENCE [MRNA] (ISOFORM 2); INTERACTION WITH PYCARD; SUBCELLULAR LOCATION; TISSUE SPECIFICITY; AUTOINHIBITION

Manji G.A., Wang L., Geddes B.J., Brown M., Merriam S., Al-Garawi A., Mak S., Lora J.M., Briskin M., Jurman M., Cao J., DiStefano P.S., Bertin J.

4 · Complete sequencing and characterization of 21,243 full-length human cDNAs.

2004 · Nat. Genet.

PubMed 14702039 ↗
Scope & authors

NUCLEOTIDE SEQUENCE [LARGE SCALE MRNA] (ISOFORM 1)

Ota T., Suzuki Y., Nishikawa T., Otsuki T., Sugiyama T., Irie R., Wakamatsu A., Hayashi K., Sato H., Nagai K., Kimura K., Makita H., Sekine M., Obayashi M., Nishi T., Shibahara T., Tanaka T., Ishii S., Yamamoto J., Saito K., Kawai Y., Isono Y., Nakamura Y., Nagahari K., Murakami K., Yasuda T., Iwayanagi T., Wagatsuma M., Shiratori A., Sudo H., Hosoiri T., Kaku Y., Kodaira H., Kondo H., Sugawara M., Takahashi M., Kanda K., Yokoi T., Furuya T., Kikkawa E., Omura Y., Abe K., Kamihara K., Katsuta N., Sato K., Tanikawa M., Yamazaki M., Ninomiya K., Ishibashi T., Yamashita H., Murakawa K., Fujimori K., Tanai H., Kimata M., Watanabe M., Hiraoka S., Chiba Y., Ishida S., Ono Y., Takiguchi S., Watanabe S., Yosida M., Hotuta T., Kusano J., Kanehori K., Takahashi-Fujii A., Hara H., Tanase T.-O., Nomura Y., Togiya S., Komai F., Hara R., Takeuchi K., Arita M., Imose N., Musashino K., Yuuki H., Oshima A., Sasaki N., Aotsuka S., Yoshikawa Y., Matsunawa H., Ichihara T., Shiohata N., Sano S., Moriya S., Momiyama H., Satoh N., Takami S., Terashima Y., Suzuki O., Nakagawa S., Senoh A., Mizoguchi H., Goto Y., Shimizu F., Wakebe H., Hishigaki H., Watanabe T., Sugiyama A., Takemoto M., Kawakami B., Yamazaki M., Watanabe K., Kumagai A., Itakura S., Fukuzumi Y., Fujimori Y., Komiyama M., Tashiro H., Tanigami A., Fujiwara T., Ono T., Yamada K., Fujii Y., Ozaki K., Hirao M., Ohmori Y., Kawabata A., Hikiji T., Kobatake N., Inagaki H., Ikema Y., Okamoto S., Okitani R., Kawakami T., Noguchi S., Itoh T., Shigeta K., Senba T., Matsumura K., Nakajima Y., Mizuno T., Morinaga M., Sasaki M., Togashi T., Oyama M., Hata H., Watanabe M., Komatsu T., Mizushima-Sugano J., Satoh T., Shirai Y., Takahashi Y., Nakagawa K., Okumura K., Nagase T., Nomura N., Kikuchi H., Masuho Y., Yamashita R., Nakai K., Yada T., Nakamura Y., Ohara O., Isogai T., Sugano S.

All source publications (87)
· Reference

MAR-2005 ·

Scope & authors

NUCLEOTIDE SEQUENCE [LARGE SCALE MRNA] (ISOFORM 5)

Totoki Y., Toyoda A., Takeda T., Sakaki Y., Tanaka A., Yokoyama S., Ohara O., Nagase T., Kikuno R.F.

6 · The DNA sequence and biological annotation of human chromosome 1.

2006 · Nature

PubMed 16710414 ↗
Scope & authors

NUCLEOTIDE SEQUENCE [LARGE SCALE GENOMIC DNA]

Gregory S.G., Barlow K.F., McLay K.E., Kaul R., Swarbreck D., Dunham A., Scott C.E., Howe K.L., Woodfine K., Spencer C.C.A., Jones M.C., Gillson C., Searle S., Zhou Y., Kokocinski F., McDonald L., Evans R., Phillips K., Atkinson A., Cooper R., Jones C., Hall R.E., Andrews T.D., Lloyd C., Ainscough R., Almeida J.P., Ambrose K.D., Anderson F., Andrew R.W., Ashwell R.I.S., Aubin K., Babbage A.K., Bagguley C.L., Bailey J., Beasley H., Bethel G., Bird C.P., Bray-Allen S., Brown J.Y., Brown A.J., Buckley D., Burton J., Bye J., Carder C., Chapman J.C., Clark S.Y., Clarke G., Clee C., Cobley V., Collier R.E., Corby N., Coville G.J., Davies J., Deadman R., Dunn M., Earthrowl M., Ellington A.G., Errington H., Frankish A., Frankland J., French L., Garner P., Garnett J., Gay L., Ghori M.R.J., Gibson R., Gilby L.M., Gillett W., Glithero R.J., Grafham D.V., Griffiths C., Griffiths-Jones S., Grocock R., Hammond S., Harrison E.S.I., Hart E., Haugen E., Heath P.D., Holmes S., Holt K., Howden P.J., Hunt A.R., Hunt S.E., Hunter G., Isherwood J., James R., Johnson C., Johnson D., Joy A., Kay M., Kershaw J.K., Kibukawa M., Kimberley A.M., King A., Knights A.J., Lad H., Laird G., Lawlor S., Leongamornlert D.A., Lloyd D.M., Loveland J., Lovell J., Lush M.J., Lyne R., Martin S., Mashreghi-Mohammadi M., Matthews L., Matthews N.S.W., McLaren S., Milne S., Mistry S., Moore M.J.F., Nickerson T., O'Dell C.N., Oliver K., Palmeiri A., Palmer S.A., Parker A., Patel D., Pearce A.V., Peck A.I., Pelan S., Phelps K., Phillimore B.J., Plumb R., Rajan J., Raymond C., Rouse G., Saenphimmachak C., Sehra H.K., Sheridan E., Shownkeen R., Sims S., Skuce C.D., Smith M., Steward C., Subramanian S., Sycamore N., Tracey A., Tromans A., Van Helmond Z., Wall M., Wallis J.M., White S., Whitehead S.L., Wilkinson J.E., Willey D.L., Williams H., Wilming L., Wray P.W., Wu Z., Coulson A., Vaudin M., Sulston J.E., Durbin R.M., Hubbard T., Wooster R., Dunham I., Carter N.P., McVean G., Ross M.T., Harrow J., Olson M.V., Beck S., Rogers J., Bentley D.R.

· Reference

JUL-2005 ·

Scope & authors

NUCLEOTIDE SEQUENCE [LARGE SCALE GENOMIC DNA]

Mural R.J., Istrail S., Sutton G.G., Florea L., Halpern A.L., Mobarry C.M., Lippert R., Walenz B., Shatkay H., Dew I., Miller J.R., Flanigan M.J., Edwards N.J., Bolanos R., Fasulo D., Halldorsson B.V., Hannenhalli S., Turner R., Yooseph S., Lu F., Nusskern D.R., Shue B.C., Zheng X.H., Zhong F., Delcher A.L., Huson D.H., Kravitz S.A., Mouchard L., Reinert K., Remington K.A., Clark A.G., Waterman M.S., Eichler E.E., Adams M.D., Hunkapiller M.W., Myers E.W., Venter J.C.

8 · The status, quality, and expansion of the NIH full-length cDNA project: the Mammalian Gene Collection (MGC).

2004 · Genome Res.

PubMed 15489334 ↗
Scope & authors

NUCLEOTIDE SEQUENCE [LARGE SCALE MRNA] (ISOFORMS 2; 4 AND 6)

9 · CIAS1/cryopyrin/PYPAF1/NALP3/CATERPILLER 1.1 is an inducible inflammatory mediator with NF-kappa B suppressive properties.

2003 · J. Immunol.

PubMed 14662828 ↗
Scope & authors

NUCLEOTIDE SEQUENCE [MRNA] OF 2-1036 (ISOFORM 4); ALTERNATIVE SPLICING (ISOFORMS 1 AND 2); SUBCELLULAR LOCATION; INDUCTION BY LPS; LTA; POLY(I:C) AND TNF

O'Connor W. Jr., Harton J.A., Zhu X., Linhoff M.W., Ting J.-P.

10 · Cloning and functional analysis of cDNAs with open reading frames for 300 previously undefined genes expressed in CD34+ hematopoietic stem/progenitor cells.

2000 · Genome Res.

PubMed 11042152 ↗
Scope & authors

NUCLEOTIDE SEQUENCE [LARGE SCALE MRNA] OF 393-1036 (ISOFORM 1)

Zhang Q.-H., Ye M., Wu X.-Y., Ren S.-X., Zhao M., Zhao C.-J., Fu G., Shen Y., Fan H.-Y., Lu G., Zhong M., Xu X.-R., Han Z.-G., Zhang J.-W., Tao J., Huang Q.-H., Zhou J., Hu G.-X., Gu J., Chen S.-J., Chen Z.

11 · NALP3 forms an IL-1beta-processing inflammasome with increased activity in Muckle-Wells autoinflammatory disorder.

2004 · Immunity

PubMed 15030775 ↗
Scope & authors

IDENTIFICATION OF NRLP3 INFLAMMASOME COMPLEX

Agostini L., Martinon F., Burns K., McDermott M.F., Hawkins P.N., Tschopp J.

12 · Gout-associated uric acid crystals activate the NALP3 inflammasome.

2006 · Nature

PubMed 16407889 ↗
Scope & authors

FUNCTION; ACTIVITY REGULATION

Martinon F., Petrilli V., Mayor A., Tardivel A., Tschopp J.

13 · The SPRY domain of Pyrin, mutated in familial Mediterranean fever patients, interacts with inflammasome components and inhibits proIL-1beta processing.

2007 · Cell Death Differ.

PubMed 17431422 ↗
Scope & authors

INTERACTION WITH MEFV

Papin S., Cuenin S., Agostini L., Martinon F., Werner S., Beer H.D., Grutter C., Grutter M., Tschopp J.

14 · Inflammasome components NALP 1 and 3 Show distinct but separate expression profiles in human tissues suggesting a site-specific role in the inflammatory response.

2007 · J. Histochem. Cytochem.

PubMed 17164409 ↗
Scope & authors

SUBCELLULAR LOCATION; TISSUE SPECIFICITY

Kummer J.A., Broekhuizen R., Everett H., Agostini L., Kuijk L., Martinon F., van Bruggen R., Tschopp J.

15 · Cryopyrin/NALP3 binds ATP/dATP, is an ATPase, and requires ATP binding to mediate inflammatory signaling.

2007 · Proc. Natl. Acad. Sci. U.S.A.

PubMed 17483456 ↗
Scope & authors

FUNCTION; CATALYTIC ACTIVITY; MUTAGENESIS OF 231-GLY--THR-233

Duncan J.A., Bergstralh D.T., Wang Y., Willingham S.B., Ye Z., Zimmermann A.G., Ting J.P.

16 · Osteoblasts express NLRP3, a nucleotide-binding domain and leucine-rich repeat region containing receptor implicated in bacterially induced cell death.

2008 · J. Bone Miner. Res.

PubMed 17907925 ↗
Scope & authors

TISSUE SPECIFICITY; INDUCTION BY SALMONELLA

McCall S.H., Sahraei M., Young A.B., Worley C.S., Duncan J.A., Ting J.P., Marriott I.

17 · Silica crystals and aluminum salts activate the NALP3 inflammasome through phagosomal destabilization.

2008 · Nat. Immunol.

PubMed 18604214 ↗
Scope & authors

FUNCTION; ACTIVITY REGULATION

Hornung V., Bauernfeind F., Halle A., Samstad E.O., Kono H., Rock K.L., Fitzgerald K.A., Latz E.

18 · Innate immune activation through Nalp3 inflammasome sensing of asbestos and silica.

2008 · Science

PubMed 18403674 ↗
Scope & authors

FUNCTION; ACTIVITY REGULATION

Dostert C., Petrilli V., Van Bruggen R., Steele C., Mossman B.T., Tschopp J.

19 · Neisseria gonorrhoeae activates the proteinase cathepsin B to mediate the signaling activities of the NLRP3 and ASC-containing inflammasome.

2009 · J. Immunol.

PubMed 19414800 ↗
Scope & authors

FUNCTION; ACTIVITY REGULATION

Duncan J.A., Gao X., Huang M.T., O'Connor B.P., Thomas C.E., Willingham S.B., Bergstralh D.T., Jarvis G.A., Sparling P.F., Ting J.P.

20 · A role for mitochondria in NLRP3 inflammasome activation.

2011 · Nature

PubMed 21124315 ↗
Scope & authors

SUBCELLULAR LOCATION

Zhou R., Yazdi A.S., Menu P., Tschopp J.

21 · Non-transcriptional priming and deubiquitination regulate NLRP3 inflammasome activation.

2012 · J. Biol. Chem.

PubMed 22948162 ↗
Scope & authors

UBIQUITINATION

Juliana C., Fernandes-Alnemri T., Kang S., Farias A., Qin F., Alnemri E.S.

22 · Novel role of PKR in inflammasome activation and HMGB1 release.

2012 · Nature

PubMed 22801494 ↗
Scope & authors

FUNCTION; INTERACTION WITH EIF2AK2

Lu B., Nakamura T., Inouye K., Li J., Tang Y., Lundbaeck P., Valdes-Ferrer S.I., Olofsson P.S., Kalb T., Roth J., Zou Y., Erlandsson-Harris H., Yang H., Ting J.P., Wang H., Andersson U., Antoine D.J., Chavan S.S., Hotamisligil G.S., Tracey K.J.

23 · GBP5 promotes NLRP3 inflammasome assembly and immunity in mammals.

2012 · Science

PubMed 22461501 ↗
Scope & authors

INTERACTION WITH GBP5; MUTAGENESIS OF 22-LEU-LYS-23

Shenoy A.R., Wellington D.A., Kumar P., Kassa H., Booth C.J., Cresswell P., MacMicking J.D.

24 · Selective inhibition of the NLRP3 inflammasome by targeting to promyelocytic leukemia protein in mouse and human.

2013 · Blood

PubMed 23430110 ↗
Scope & authors

INTERACTION WITH PML

Lo Y.H., Huang Y.W., Wu Y.H., Tsai C.S., Lin Y.C., Mo S.T., Kuo W.C., Chuang Y.T., Jiang S.T., Shih H.M., Lai M.Z.

25 · Modulatory mechanisms controlling the NLRP3 inflammasome in inflammation: recent developments.

2013 · Curr. Opin. Immunol.

PubMed 23305783 ↗
Scope & authors

REVIEW

Haneklaus M., O'Neill L.A., Coll R.C.

26 · The DHX33 RNA helicase senses cytosolic RNA and activates the NLRP3 inflammasome.

2013 · Immunity

PubMed 23871209 ↗
Scope & authors

FUNCTION; INTERACTION WITH DHX33; SUBCELLULAR LOCATION

Mitoma H., Hanabuchi S., Kim T., Bao M., Zhang Z., Sugimoto N., Liu Y.J.

27 · Omega-3 fatty acids prevent inflammation and metabolic disorder through inhibition of NLRP3 inflammasome activation.

2013 · Immunity

PubMed 23809162 ↗
Scope & authors

INTERACTION WITH ARRB2

Yan Y., Jiang W., Spinetti T., Tardivel A., Castillo R., Bourquin C., Guarda G., Tian Z., Tschopp J., Zhou R.

28 · The adaptor MAVS promotes NLRP3 mitochondrial localization and inflammasome activation.

2013 · Cell

PubMed 23582325 ↗
Scope & authors

FUNCTION; SUBCELLULAR LOCATION; INTERACTION WITH MAVS; MUTAGENESIS OF 2-LYS--ARG-7

Subramanian N., Natarajan K., Clatworthy M.R., Wang Z., Germain R.N.

29 · Cyclic-di-GMP and cyclic-di-AMP activate the NLRP3 inflammasome.

2013 · EMBO Rep.

PubMed 24008845 ↗
Scope & authors

ACTIVITY REGULATION

Abdul-Sater A.A., Tattoli I., Jin L., Grajkowski A., Levi A., Koller B.H., Allen I.C., Beaucage S.L., Fitzgerald K.A., Ting J.P., Cambier J.C., Girardin S.E., Schindler C.

30 · Activation of the Nlrp3 inflammasome in infiltrating macrophages by endocannabinoids mediates beta cell loss in type 2 diabetes.

2013 · Nat. Med.

PubMed 23955712 ↗
Scope & authors

INDUCTION BY ENDOCANNABINOID ANANDAMIDE

Jourdan T., Godlewski G., Cinar R., Bertola A., Szanda G., Liu J., Tam J., Han T., Mukhopadhyay B., Skarulis M.C., Ju C., Aouadi M., Czech M.P., Kunos G.

31 · Human respiratory syncytial virus viroporin SH: a viral recognition pathway used by the host to signal inflammasome activation.

2013 · Thorax

PubMed 23229815 ↗
Scope & authors

TISSUE SPECIFICITY; SUBCELLULAR LOCATION

Triantafilou K., Kar S., Vakakis E., Kotecha S., Triantafilou M.

32 · CARD8 is a negative regulator for NLRP3 inflammasome, but mutant NLRP3 in cryopyrin-associated periodic syndromes escapes the restriction.

2014 · Arthritis Res. Ther.

PubMed 24517500 ↗
Scope & authors

INTERACTION WITH CARD8

Ito S., Hara Y., Kubota T.

33 · Unified polymerization mechanism for the assembly of ASC-dependent inflammasomes.

2014 · Cell

PubMed 24630722 ↗
Scope & authors

MECHANISM OF INFLAMMASOME ASSEMBLY; MUTAGENESIS OF GLU-15; LYS-23; LYS-24; MET-27; ARG-43; GLU-64 AND ASP-82

Lu A., Magupalli V.G., Ruan J., Yin Q., Atianand M.K., Vos M.R., Schroder G.F., Fitzgerald K.A., Wu H., Egelman E.H.

34 · Inflammasome priming by lipopolysaccharide is dependent upon ERK signaling and proteasome function.

2014 · J. Immunol.

PubMed 24623131 ↗
Scope & authors

PHOSPHORYLATION

Ghonime M.G., Shamaa O.R., Das S., Eldomany R.A., Fernandes-Alnemri T., Alnemri E.S., Gavrilin M.A., Wewers M.D.

35 · ADP-ribosylation of NLRP3 by Mycoplasma pneumoniae CARDS toxin regulates inflammasome activity.

2014 · MBio

PubMed 25538194 ↗
Scope & authors

INTERACTION WITH M.PNEUMONIAE CARDS TOXIN; SUBCELLULAR LOCATION; PROBABLE ADP-RIBOSYLATION (MICROBIAL INFECTION)

Bose S., Segovia J.A., Somarajan S.R., Chang T.H., Kannan T.R., Baseman J.B.

36 · The PYRIN domain-only protein POP3 inhibits ALR inflammasomes and regulates responses to infection with DNA viruses.

2014 · Nat. Immunol.

PubMed 24531343 ↗
Scope & authors

INTERACTION WITH PYDC5

Khare S., Ratsimandresy R.A., de Almeida L., Cuda C.M., Rellick S.L., Misharin A.V., Wallin M.C., Gangopadhyay A., Forte E., Gottwein E., Perlman H., Reed J.C., Greaves D.R., Dorfleutner A., Stehlik C.

37 · The NLRP3 inflammasome is released as a particulate danger signal that amplifies the inflammatory response.

2014 · Nat. Immunol.

PubMed 24952504 ↗
Scope & authors

SUBCELLULAR LOCATION; CHARACTERIZATION OF VARIANT FCAS1/MWS TRP-262; CHARACTERIZATION OF VARIANT CINCA ASN-305; CHARACTERIZATION OF VARIANT CINCA/MWS MET-350

Baroja-Mazo A., Martin-Sanchez F., Gomez A.I., Martinez C.M., Amores-Iniesta J., Compan V., Barbera-Cremades M., Yaguee J., Ruiz-Ortiz E., Anton J., Bujan S., Couillin I., Brough D., Arostegui J.I., Pelegrin P.

38 · Structural mechanisms of inflammasome assembly.

2015 · FEBS J.

PubMed 25354325 ↗
Scope & authors

REVIEW ON INFLAMMASOME ASSEMBLY

Lu A., Wu H.

39 · Lipopolysaccharide primes the NALP3 inflammasome by inhibiting its ubiquitination and degradation mediated by the SCFFBXL2 E3 ligase.

2015 · J. Biol. Chem.

PubMed 26037928 ↗
Scope & authors

UBIQUITINATION AT LYS-689; MUTAGENESIS OF TRP-68; TRP-73 AND LYS-689

Han S., Lear T.B., Jerome J.A., Rajbhandari S., Snavely C.A., Gulick D.L., Gibson K.F., Zou C., Chen B.B., Mallampalli R.K.

40 · TRIM-mediated precision autophagy targets cytoplasmic regulators of innate immunity.

2015 · J. Cell Biol.

PubMed 26347139 ↗
Scope & authors

INTERACTION WITH MEFV

Kimura T., Jain A., Choi S.W., Mandell M.A., Schroder K., Johansen T., Deretic V.

41 · The E3 ubiquitin ligase TRIM31 attenuates NLRP3 inflammasome activation by promoting proteasomal degradation of NLRP3.

2016 · Nat. Commun.

PubMed 27929086 ↗
Scope & authors

FUNCTION; UBIQUITINATION; MUTAGENESIS OF SER-198

Song H., Liu B., Huai W., Yu Z., Wang W., Zhao J., Han L., Jiang G., Zhang L., Gao C., Zhao W.

42 · NLRP3 phosphorylation is an essential priming event for inflammasome activation.

2017 · Mol. Cell

PubMed 28943315 ↗
Scope & authors

PHOSPHORYLATION AT TYR-13; SER-163; SER-198; SER-334; SER-728 AND SER-975

Song N., Liu Z.S., Xue W., Bai Z.F., Wang Q.Y., Dai J., Liu X., Huang Y.J., Cai H., Zhan X.Y., Han Q.Y., Wang H., Chen Y., Li H.Y., Li A.L., Zhang X.M., Zhou T., Li T.

43 · MARK4 regulates NLRP3 positioning and inflammasome activation through a microtubule-dependent mechanism.

2017 · Nat. Commun.

PubMed 28656979 ↗
Scope & authors

FUNCTION; SUBCELLULAR LOCATION; INTERACTION WITH MARK4; MUTAGENESIS OF VAL-52

Li X., Thome S., Ma X., Amrute-Nayak M., Finigan A., Kitt L., Masters L., James J.R., Shi Y., Meng G., Mallat Z.

44 · A small-molecule inhibitor of the NLRP3 inflammasome for the treatment of inflammatory diseases.

2015 · Nat. Med.

PubMed 25686105 ↗
Scope & authors

FUNCTION; ACTIVITY REGULATION

Coll R.C., Robertson A.A., Chae J.J., Higgins S.C., Munoz-Planillo R., Inserra M.C., Vetter I., Dungan L.S., Monks B.G., Stutz A., Croker D.E., Butler M.S., Haneklaus M., Sutton C.E., Nunez G., Latz E., Kastner D.L., Mills K.H., Masters S.L., Schroder K., Cooper M.A., O'Neill L.A.

45 · NLRP3 tyrosine phosphorylation is controlled by protein tyrosine phosphatase PTPN22.

2016 · J. Clin. Invest.

PubMed 27043286 ↗
Scope & authors

PHOSPHORYLATION AT TYR-861; MUTAGENESIS OF TYR-861

Spalinger M.R., Kasper S., Gottier C., Lang S., Atrott K., Vavricka S.R., Scharl S., Raselli T., Frey-Wagner I., Gutte P.M., Gruetter M.G., Beer H.D., Contassot E., Chan A.C., Dai X., Rawlings D.J., Mair F., Becher B., Falk W., Fried M., Rogler G., Scharl M.

46 · NLRP3 inflammasome assembly is regulated by phosphorylation of the pyrin domain.

2017 · J. Exp. Med.

PubMed 28465465 ↗
Scope & authors

PHOSPHORYLATION AT SER-5; 7ACTIVITY REGULATION; MUTAGENESIS OF SER-5 AND 7-ARG--ARG-12

Stutz A., Kolbe C.C., Stahl R., Horvath G.L., Franklin B.S., van Ray O., Brinkschulte R., Geyer M., Meissner F., Latz E.

47 · mutation and cochlear autoinflammation cause syndromic and nonsyndromic hearing loss DFNA34 responsive to anakinra therapy.

2017 · Proc. Natl. Acad. Sci. U.S.A.

PubMed 28847925 ↗
Scope & authors

FUNCTION; INVOLVEMENT IN DFNA34; VARIANT DFNA34 GLN-920; CHARACTERIZATION OF VARIANT DFNA34 GLN-920

Nakanishi H., Kawashima Y., Kurima K., Chae J.J., Ross A.M., Pinto-Patarroyo G., Patel S.K., Muskett J.A., Ratay J.S., Chattaraj P., Park Y.H., Grevich S., Brewer C.C., Hoa M., Kim H.J., Butman J.A., Broderick L., Hoffman H.M., Aksentijevich I., Kastner D.L., Goldbach-Mansky R., Griffith A.J.

48 · PtdIns4P on dispersed trans-Golgi network mediates NLRP3 inflammasome activation.

2018 · Nature

PubMed 30487600 ↗
Scope & authors

FUNCTION; ACTIVITY REGULATION; SUBCELLULAR LOCATION

Chen J., Chen Z.J.

49 · The Crohn's disease risk factor IRGM limits NLRP3 inflammasome activation by impeding its assembly and by mediating its selective autophagy.

2019 · Mol. Cell

PubMed 30612879 ↗
Scope & authors

FUNCTION; ACTIVITY REGULATION; INTERACTION WITH IRGM; PROTEIN DEGRADATION

Mehto S., Jena K.K., Nath P., Chauhan S., Kolapalli S.P., Das S.K., Sahoo P.K., Jain A., Taylor G.A., Chauhan S.

50 · MCC950 directly targets the NLRP3 ATP-hydrolysis motif for inflammasome inhibition.

2019 · Nat. Chem. Biol.

PubMed 31086327 ↗
Scope & authors

FUNCTION; CATALYTIC ACTIVITY; ACTIVITY REGULATION; MUTAGENESIS OF 231-GLY--THR-233 AND 302-ASP--GLU-306

Coll R.C., Hill J.R., Day C.J., Zamoshnikova A., Boucher D., Massey N.L., Chitty J.L., Fraser J.A., Jennings M.P., Robertson A.A.B., Schroder K.

51 · MCC950 closes the active conformation of NLRP3 to an inactive state.

2019 · Nat. Chem. Biol.

PubMed 31086329 ↗
Scope & authors

FUNCTION; CATALYTIC ACTIVITY; ACTIVITY REGULATION; MUTAGENESIS OF 302-ASP--GLU-306; CHARACTERIZATION OF VARIANT CINCA ASN-305

Tapia-Abellan A., Angosto-Bazarra D., Martinez-Banaclocha H., de Torre-Minguela C., Ceron-Carrasco J.P., Perez-Sanchez H., Arostegui J.I., Pelegrin P.

52 · Calcium-sensing receptor-mediated NLRP3 inflammasome response to calciprotein particles drives inflammation in rheumatoid arthritis.

2020 · Nat. Commun.

PubMed 32843625 ↗
Scope & authors

ACTIVITY REGULATION

Jaeger E., Murthy S., Schmidt C., Hahn M., Strobel S., Peters A., Staeubert C., Sungur P., Venus T., Geisler M., Radusheva V., Raps S., Rothe K., Scholz R., Jung S., Wagner S., Pierer M., Seifert O., Chang W., Estrela-Lopis I., Raulien N., Krohn K., Straeter N., Hoeppener S., Schoeneberg T., Rossol M., Wagner U.

53 · Long-lived macrophage reprogramming drives spike protein-mediated inflammasome activation in COVID-19.

2021 · EMBO Mol. Med.

PubMed 34133077 ↗
Scope & authors

FUNCTION; INDUCTION BY SARS-COV-2 INFECTION; ACTIVITY REGULATION; TISSUE SPECIFICITY

Theobald S.J., Simonis A., Georgomanolis T., Kreer C., Zehner M., Eisfeld H.S., Albert M.C., Chhen J., Motameny S., Erger F., Fischer J., Malin J.J., Graeb J., Winter S., Pouikli A., David F., Boell B., Koehler P., Vanshylla K., Gruell H., Suarez I., Hallek M., Faetkenheuer G., Jung N., Cornely O.A., Lehmann C., Tessarz P., Altmueller J., Nuernberg P., Kashkar H., Klein F., Koch M., Rybniker J.

54 · Inflammasomes are activated in response to SARS-CoV-2 infection and are associated with COVID-19 severity in patients.

2021 · J. Exp. Med.

PubMed 33231615 ↗
Scope & authors

FUNCTION; ACTIVITY REGULATION; SUBCELLULAR LOCATION; TISSUE SPECIFICITY

Rodrigues T.S., de Sa K.S.G., Ishimoto A.Y., Becerra A., Oliveira S., Almeida L., Goncalves A.V., Perucello D.B., Andrade W.A., Castro R., Veras F.P., Toller-Kawahisa J.E., Nascimento D.C., de Lima M.H.F., Silva C.M.S., Caetite D.B., Martins R.B., Castro I.A., Pontelli M.C., de Barros F.C., do Amaral N.B., Giannini M.C., Bonjorno L.P., Lopes M.I.F., Santana R.C., Vilar F.C., Auxiliadora-Martins M., Luppino-Assad R., de Almeida S.C.L., de Oliveira F.R., Batah S.S., Siyuan L., Benatti M.N., Cunha T.M., Alves-Filho J.C., Cunha F.Q., Cunha L.D., Frantz F.G., Kohlsdorf T., Fabro A.T., Arruda E., de Oliveira R.D.R., Louzada-Junior P., Zamboni D.S.

55 · SARS-CoV-2 N protein promotes NLRP3 inflammasome activation to induce hyperinflammation.

2021 · Nat. Commun.

PubMed 34341353 ↗
Scope & authors

FUNCTION; INTERACTION WITH SARS-COV-2 N PROTEIN (MICROBIAL INFECTION); INTERACTION WITH PYCARD

Pan P., Shen M., Yu Z., Ge W., Chen K., Tian M., Xiao F., Wang Z., Wang J., Jia Y., Wang W., Wan P., Zhang J., Chen W., Lei Z., Chen X., Luo Z., Zhang Q., Xu M., Li G., Li Y., Wu J.

56 · BTK operates a phospho-tyrosine switch to regulate NLRP3 inflammasome activity.

2021 · J. Exp. Med.

PubMed 34554188 ↗
Scope & authors

FUNCTION; PHOSPHORYLATION AT TYR-136; TYR-140; TYR-143 AND TYR-168; MUTAGENESIS OF 136-TYR--TYR-143 AND TYR-168

Bittner Z.A., Liu X., Mateo Tortola M., Tapia-Abellan A., Shankar S., Andreeva L., Mangan M., Spalinger M., Kalbacher H., Duewell P., Lovotti M., Bosch K., Dickhoefer S., Marcu A., Stevanovic S., Herster F., Cardona Gloria Y., Chang T.H., Bork F., Greve C.L., Loeffler M.W., Wolz O.O., Schilling N.A., Kuemmerle-Deschner J.B., Wagner S., Delor A., Grimbacher B., Hantschel O., Scharl M., Wu H., Latz E., Weber A.N.R.

57 · NLRP3 phosphorylation in its LRR domain critically regulates inflammasome assembly.

2021 · Nat. Commun.

PubMed 34615873 ↗
Scope & authors

PHOSPHORYLATION AT SER-735; SER-806 AND SER-1035; UBIQUITINATION AT LYS-878; LYS-927 AND LYS-973; MUTAGENESIS OF SER-735; SER-806 AND SER-1035

Niu T., De Rosny C., Chautard S., Rey A., Patoli D., Groslambert M., Cosson C., Lagrange B., Zhang Z., Visvikis O., Hacot S., Hologne M., Walker O., Wong J., Wang P., Ricci R., Henry T., Boyer L., Petrilli V., Py B.F.

58 · The E3 Ubiquitin Ligase TRIM65 Negatively Regulates Inflammasome Activation Through Promoting Ubiquitination of NLRP3.

2021 · Front. Immunol.

PubMed 34512673 ↗
Scope & authors

FUNCTION; UBIQUITINATION BY TRIM65

Tang T., Li P., Zhou X., Wang R., Fan X., Yang M., Qi K.

59 · Sensing low intracellular potassium by NLRP3 results in a stable open structure that promotes inflammasome activation.

2021 · Sci. Adv.

PubMed 34524838 ↗
Scope & authors

DOMAIN

Tapia-Abellan A., Angosto-Bazarra D., Alarcon-Vila C., Banos M.C., Hafner-Bratkovic I., Oliva B., Pelegrin P.

60 · Palmitoylation prevents sustained inflammation by limiting NLRP3 inflammasome activation through chaperone-mediated autophagy.

2022 · Mol. Cell

PubMed 36586411 ↗
Scope & authors

PALMITOYLATION AT CYS-844; INTERACTION WITH HSPA8; MUTAGENESIS OF GLN-359; GLN-603; GLN-798; CYS-844 AND GLN-995

Wang L., Cai J., Zhao X., Ma L., Zeng P., Zhou L., Liu Y., Yang S., Cai Z., Zhang S., Zhou L., Yang J., Liu T., Jin S., Cui J.

61 · MARCH5-dependent NLRP3 ubiquitination is required for mitochondrial NLRP3-NEK7 complex formation and NLRP3 inflammasome activation.

2023 · EMBO J.

PubMed 37575012 ↗
Scope & authors

FUNCTION; UBIQUITINATION AT LYS-324 AND LYS-430; INTERACTION WITH NEK7; SUBUNIT; MUTAGENESIS OF LYS-324 AND LYS-430

Park Y.J., Dodantenna N., Kim Y., Kim T.H., Lee H.S., Yoo Y.S., Heo J., Lee J.H., Kwon M.H., Kang H.C., Lee J.S., Cho H.

62 · ZDHHC5-mediated NLRP3 palmitoylation promotes NLRP3-NEK7 interaction and inflammasome activation.

2023 · Mol. Cell

PubMed 38092000 ↗
Scope & authors

FUNCTION; PALMITOYLATION AT CYS-837 AND CYS-838; INTERACTION WITH NEK7; SUBCELLULAR LOCATION; MUTAGENESIS OF 837-CYS-CYS-838

Zheng S., Que X., Wang S., Zhou Q., Xing X., Chen L., Hou C., Ma J., An P., Peng Y., Yao Y., Song Q., Li J., Zhang P., Pei H.

63 · The human disease-associated gene ZNFX1 controls inflammation through inhibition of the NLRP3 inflammasome.

2024 · EMBO J.

PubMed 39333773 ↗
Scope & authors

INTERACTION WITH ZNFX1

Huang J., Wang Y., Jia X., Zhao C., Zhang M., Bao M., Fu P., Cheng C., Shi R., Zhang X., Cui J., Wan G., Xu A.

64 · Consecutive palmitoylation and phosphorylation orchestrates NLRP3 membrane trafficking and inflammasome activation.

2024 · Mol. Cell

PubMed 39173637 ↗
Scope & authors

FUNCTION; ACTIVITY REGULATION; INTERACTION WITH NEK7; SUBCELLULAR LOCATION; PALMITOYLATION AT CYS-130 AND CYS-958; PHOSPHORYLATION AT SER-265; MUTAGENESIS OF CYS-130; SER-265 AND CYS-958

Nie L., Fei C., Fan Y., Dang F., Zhao Z., Zhu T., Wu X., Dai T., Balasubramanian A., Pan J., Hu Y., Luo H.R., Wei W., Chen J.

65 · ABHD8 antagonizes inflammation by facilitating chaperone-mediated autophagy-mediated degradation of NLRP3.

2025 · Autophagy

PubMed 39225180 ↗
Scope & authors

INTERACTION WITH ABHD8; INTERACTION WITH SARS-COV-2 N (MICROBIAL INFECTION); PALMITOYLATION

Yang S., Li M., Lian G., Wu Y., Cui J., Wang L.

66 · Human cytomegalovirus protein US18 promotes NLRP3 inflammasome activation.

2025 · Biochem. Biophys. Res. Commun.

PubMed 40450990 ↗
Scope & authors

FUNCTION; INTERACTION WITH HUMAN CYTOMEGALOVIRUS PROTEIN US18 (MICROBIAL INFECTION)

Zhang Y., Lei Y.L., Ren P., Yang X.M., Song J.H., Li S., Zhu C.Y., Yi X.M.

67 · Thermal Proteome Profiling Reveals Meltome Upon NLRP3 Inflammasome Activation.

2025 · Mol. Cell. Proteomics

PubMed 40250624 ↗
Scope & authors

FUNCTION; INTERACTION WITH FAM120A

Yang C., Wang L., Liu Y., Zhang Y., Jin C., Cheng J., Shang L., Fang L., Wu S., Chen C., Wang J.

68 · Crystal structure of NALP3 protein pyrin domain (PYD) and its implications in inflammasome assembly.

2011 · J. Biol. Chem.

PubMed 21880711 ↗
Scope & authors

X-RAY CRYSTALLOGRAPHY; SUBUNIT; DISULFIDE BOND

Bae J.Y., Park H.H.

69 · ASC pyrin domain self-associates and binds NLRP3 protein using equivalent binding interfaces.

2016 · J. Biol. Chem.

PubMed 27432880 ↗
Scope & authors

STRUCTURE BY NMR OF 3-93; FUNCTION; ACTIVITY REGULATION; INTERACTION WITH PYCARD

Oroz J., Barrera-Vilarmau S., Alfonso C., Rivas G., de Alba E.

70 · Structural mechanism for NEK7-licensed activation of NLRP3 inflammasome.

2019 · Nature

PubMed 31189953 ↗
Scope & authors

STRUCTURE BY ELECTRON MICROSCOPY IN COMPLEX WITH NEK7; FUNCTION; INTERACTION WITH NEK7; MUTAGENESIS OF GLN-359; 638-GLN--GLU-640; VAL-707; GLU-745; ASP-750; GLU-802; TRP-833; GLU-864 AND TYR-918

Sharif H., Wang L., Wang W.L., Magupalli V.G., Andreeva L., Qiao Q., Hauenstein A.V., Wu Z., Nunez G., Mao Y., Wu H.

71 · Crystal structure of NLRP3 NACHT domain with an inhibitor defines mechanism of inflammasome inhibition.

2021 · J. Mol. Biol.

PubMed 34687713 ↗
Scope & authors

X-RAY CRYSTALLOGRAPHY IN COMPLEX WITH ADP AND SMALL-MOLECULE INHIBITOR; ACTIVITY REGULATION

Dekker C., Mattes H., Wright M., Boettcher A., Hinniger A., Hughes N., Kapps-Fouthier S., Eder J., Erbel P., Stiefl N., Mackay A., Farady C.J.

72 · Structure of the NLRP3 decamer bound to the cytokine release inhibitor CRID3.

2022 · Nature

PubMed 35114687 ↗
Scope & authors

STRUCTURE BY ELECTRON MICROSCOPY IN COMPLEX WITH ADP AND INHIBITOR MCC950; SUBUNIT; ACTIVITY REGULATION; PHOSPHORYLATION AT SER-198 AND SER-201; MUTAGENESIS OF ALA-228; ARG-351; ARG-578; 619-LYS--LEU-621; 689-LYS--GLY-698; 788-PHE-ASP-789 AND LYS-831

Hochheiser I.V., Pilsl M., Hagelueken G., Moecking J., Marleaux M., Brinkschulte R., Latz E., Engel C., Geyer M.

73 · Structural basis for the oligomerization-mediated regulation of NLRP3 inflammasome activation.

2022 · Proc. Natl. Acad. Sci. U.S.A.

PubMed 35254907 ↗
Scope & authors

STRUCTURE BY ELECTRON MICROSCOPY IN COMPLEX WITH ADP AND INHIBITOR MCC950; ACTIVITY REGULATION

Ohto U., Kamitsukasa Y., Ishida H., Zhang Z., Murakami K., Hirama C., Maekawa S., Shimizu T.

74 · Directionality of PYD filament growth determined by the transition of NLRP3 nucleation seeds to ASC elongation.

2022 · Sci. Adv.

PubMed 35559676 ↗
Scope & authors

STRUCTURE BY ELECTRON MICROSCOPY; ACTIVITY REGULATION; INTERACTION WITH PYCARD; MUTAGENESIS OF ARG-7; GLU-15; 23-LYS-LYS-24; MET-27; ASP-31; ARG-43; HIS-51; ALA-77; ARG-80 AND ARG-81; CHARACTERIZATION OF VARIANT KEFH HIS-21

Hochheiser I.V., Behrmann H., Hagelueken G., Rodriguez-Alcazar J.F., Kopp A., Latz E., Behrmann E., Geyer M.

75 · The inflammasome activity of NLRP3 is independent of NEK7 in HEK293 cells co-expressing ASC.

2022 · Int. J. Mol. Sci.

PubMed 36142182 ↗
Scope & authors

STRUCTURE BY ELECTRON MICROSCOPY IN COMPLEX WITH ADP; FUNCTION; ACTIVITY REGULATION; INTERACTION WITH PYCARD; MUTAGENESIS OF TYR-143; PHE-788; ASP-789; PHE-813 AND ARG-816

Machtens D.A., Bresch I.P., Eberhage J., Reubold T.F., Eschenburg S.

76 · Cryo-EM structures of the active NLRP3 inflammasome disk.

2022 · Nature

PubMed 36442502 ↗
Scope & authors

STRUCTURE BY ELECTRON MICROSCOPY AND 133-1004 IN COMPLEX WITH ATP AND NEK7; FUNCTION; ACTIVITY REGULATION; SUBUNIT; INTERACTION WITH NEK7; DOMAIN; MUTAGENESIS OF ARG-147; GLU-152; ASN-155; ARG-157; LYS-166; GLU-176; ASP-213; GLN-359; HIS-364; GLN-424 AND GLN-509

Xiao L., Magupalli V.G., Wu H.

77 · New mutations of CIAS1 that are responsible for Muckle-Wells syndrome and familial cold urticaria: a novel mutation underlies both syndromes.

2002 · Am. J. Hum. Genet.

PubMed 11992256 ↗
Scope & authors

VARIANT FCAS1 MET-200; VARIANTS MWS ASN-305; MET-350; THR-441 AND ARG-571; VARIANT FCAS1/MWS TRP-262

Dode C., Le Du N., Cuisset L., Letourneur F., Berthelot J.-M., Vaudour G., Meyrier A., Watts R.A., Scott D.G.I., Nicholls A., Granel B., Frances C., Garcier F., Edery P., Boulinguez S., Domergues J.-P., Delpech M., Grateau G.

78 · Chronic infantile neurological cutaneous and articular syndrome is caused by mutations in CIAS1, a gene highly expressed in polymorphonuclear cells and chondrocytes.

2002 · Am. J. Hum. Genet.

PubMed 12032915 ↗
Scope & authors

VARIANTS CINCA ASN-305; LYS-308; SER-311; ARG-360; ASN-438; SER-575 AND THR-664; TISSUE SPECIFICITY

Feldmann J., Prieur A.-M., Quartier P., Berquin P., Certain S., Cortis E., Teillac-Hamel D., Fischer A., de Saint Basile G.

· Reference

2002 · Am. J. Hum. Genet.

Scope & authors

ERRATUM OF PUBMED:12032915

Feldmann J., Prieur A.-M., Quartier P., Berquin P., Certain S., Cortis E., Teillac-Hamel D., Fischer A., de Saint Basile G.

80 · De novo CIAS1 mutations, cytokine activation, and evidence for genetic heterogeneity in patients with neonatal-onset multisystem inflammatory disease (NOMID): a new member of the expanding family of pyrin-associated autoinflammatory diseases.

2002 · Arthritis Rheum.

PubMed 12483741 ↗
Scope & authors

VARIANTS CINCA HIS-266; ASN-305; LEU-525 AND CYS-572

Aksentijevich I., Nowak M., Mallah M., Chae J.J., Watford W.T., Hofmann S.R., Stein L., Russo R., Goldsmith D., Dent P., Rosenberg H.F., Austin F., Remmers E.F., Balow J.E. Jr., Rosenzweig S., Komarow H., Shoham N.G., Wood G., Jones J., Mangra N., Carrero H., Adams B.S., Moore T.L., Schikler K., Hoffman H., Lovell D.J., Lipnick R., Barron K., O'Shea J.J., Kastner D.L., Goldbach-Mansky R.

81 · Fine structure mapping of CIAS1: identification of an ancestral haplotype and a common FCAS mutation, L353P.

2003 · Hum. Genet.

PubMed 12522564 ↗
Scope & authors

VARIANT FCAS1 PRO-355; VARIANT LYS-705

Hoffman H.M., Gregory S.G., Mueller J.L., Tresierras M., Broide D.H., Wanderer A.A., Kolodner R.D.

82 · Variant chronic infantile neurologic, cutaneous, articular syndrome due to a mutation within the leucine-rich repeat domain of CIAS1.

2004 · Arthritis Rheum.

PubMed 15334500 ↗
Scope & authors

VARIANT CINCA CYS-861

Frenkel J., van Kempen M.J., Kuis W., van Amstel H.K.

83 · Clinical and genetic heterogeneity among Spanish patients with recurrent autoinflammatory syndromes associated with the CIAS1/PYPAF1/NALP3 gene.

2004 · Arthritis Rheum.

PubMed 15593220 ↗
Scope & authors

VARIANTS FCAS1 MET-200; PRO-307 AND LYS-490; VARIANT CINCA ASN-305; VARIANT MWS MET-350

Arostegui J.I., Aldea A., Modesto C., Rua M.J., Argueelles F., Gonzalez-Ensenat M.A., Ramos E., Rius J., Plaza S., Vives J., Yaguee J.

84 · Molecular basis of the spectral expression of CIAS1 mutations associated with phagocytic cell-mediated autoinflammatory disorders CINCA/NOMID, MWS, and FCU.

2004 · Blood

PubMed 14630794 ↗
Scope & authors

VARIANTS CINCA LEU-262; PRO-262; ASN-305; GLY-305; SER-311; MET-350; ASP-356; PRO-407; ILE-438; CYS-572 AND PHE-634

Neven B., Callebaut I., Prieur A.-M., Feldmann J., Bodemer C., Lepore L., Derfalvi B., Benjaponpitak S., Vesely R., Sauvain M.J., Oertle S., Allen R., Morgan G., Borkhardt A., Hill C., Gardner-Medwin J., Fischer A., de Saint Basile G.

85 · A novel CIAS1 mutation and plasma/cerebrospinal fluid cytokine profile in a German patient with neonatal-onset multisystem inflammatory disease responsive to methotrexate therapy.

2004 · Pediatrics

PubMed 15231984 ↗
Scope & authors

VARIANT CINCA THR-174

Stojanov S., Weiss M., Lohse P., Belohradsky B.H.

86 · A novel missense mutation in CIAS1 encoding the pyrin-like protein, cryopyrin, causes familial cold autoinflammatory syndrome in a family of Ethiopian origin.

2007 · Int. Arch. Allergy Immunol.

PubMed 17284928 ↗
Scope & authors

VARIANT FCAS1 CYS-525

Shalev S.A., Sprecher E., Indelman M., Hujirat Y., Bergman R., Rottem M.

87 · Keratoendotheliitis fugax hereditaria: a novel cryopyrin-associated periodic syndrome caused by a mutation in the nucleotide-binding domain, leucine-rich repeat family, pyrin domain-containing 3 (NLRP3) gene.

2018 · Am. J. Ophthalmol.

PubMed 29366613 ↗
Scope & authors

VARIANT KEFH HIS-21; INVOLVEMENT IN KEFH

Turunen J.A., Wedenoja J., Repo P., Jaervinen R.S., Jaentti J.E., Moertenhumer S., Riikonen A.S., Lehesjoki A.E., Majander A., Kivelae T.T.

INFEVERS ↗

Annotation coverage audit

Every recorded UniProt comment and feature has a destination in this page. GO, Atlas annotations and interaction rows retain their separate source counts.

317 source comments and features accounted for.

View annotation inventory
Source recordTypeSection
FUNCTION:0FUNCTIONfunction
FUNCTION:1FUNCTIONfunction
CATALYTIC ACTIVITY:0CATALYTIC ACTIVITYfunction
ACTIVITY REGULATION:0ACTIVITY REGULATIONfunction
SUBUNIT:0SUBUNITinteractions
SUBUNIT:1SUBUNITinteractions
SUBUNIT:2SUBUNITinteractions
SUBUNIT:3SUBUNITinteractions
INTERACTION:0INTERACTIONinteractions
SUBCELLULAR LOCATION:0SUBCELLULAR LOCATIONlocation
ALTERNATIVE PRODUCTS:0ALTERNATIVE PRODUCTSsequence
TISSUE SPECIFICITY:0TISSUE SPECIFICITYexpression
INDUCTION:0INDUCTIONexpression
INDUCTION:1INDUCTIONexpression
DOMAIN:0DOMAINdomains
DOMAIN:1DOMAINdomains
DOMAIN:2DOMAINdomains
DOMAIN:3DOMAINdomains
PTM:0PTMprocessing
PTM:1PTMprocessing
PTM:2PTMprocessing
PTM:3PTMprocessing
PTM:4PTMprocessing
PTM:5PTMprocessing
DISEASE:0DISEASEdisease
DISEASE:1DISEASEdisease
DISEASE:2DISEASEdisease
DISEASE:3DISEASEdisease
DISEASE:4DISEASEdisease
SIMILARITY:0SIMILARITYdomains
SEQUENCE CAUTION:0SEQUENCE CAUTIONsequence
SEQUENCE CAUTION:1SEQUENCE CAUTIONsequence
SEQUENCE CAUTION:2SEQUENCE CAUTIONsequence
SEQUENCE CAUTION:3SEQUENCE CAUTIONsequence
SEQUENCE CAUTION:4SEQUENCE CAUTIONsequence
SEQUENCE CAUTION:5SEQUENCE CAUTIONsequence
SEQUENCE CAUTION:6SEQUENCE CAUTIONsequence
WEB RESOURCE:0WEB RESOURCEsources
feature-0Chainprocessing
feature-1Domaindomains
feature-2Domaindomains
feature-3Domaindomains
feature-4Repeatdomains
feature-5Repeatdomains
feature-6Repeatdomains
feature-7Repeatdomains
feature-8Repeatdomains
feature-9Repeatdomains
feature-10Repeatdomains
feature-11Repeatdomains
feature-12Repeatdomains
feature-13Regiondomains
feature-14Motifdomains
feature-15Motifdomains
feature-16Motifdomains
feature-17Motifdomains
feature-18Binding sitedomains
feature-19Binding sitedomains
feature-20Binding sitedomains
feature-21Modified residueprocessing
feature-22Modified residueprocessing
feature-23Modified residueprocessing
feature-24Modified residueprocessing
feature-25Modified residueprocessing
feature-26Modified residueprocessing
feature-27Modified residueprocessing
feature-28Modified residueprocessing
feature-29Modified residueprocessing
feature-30Modified residueprocessing
feature-31Modified residueprocessing
feature-32Modified residueprocessing
feature-33Modified residueprocessing
feature-34Modified residueprocessing
feature-35Modified residueprocessing
feature-36Modified residueprocessing
feature-37Modified residueprocessing
feature-38Modified residueprocessing
feature-39Modified residueprocessing
feature-40Modified residueprocessing
feature-41Lipidationprocessing
feature-42Lipidationprocessing
feature-43Lipidationprocessing
feature-44Lipidationprocessing
feature-45Lipidationprocessing
feature-46Disulfide bondprocessing
feature-47Cross-linkprocessing
feature-48Cross-linkprocessing
feature-49Cross-linkprocessing
feature-50Cross-linkprocessing
feature-51Cross-linkprocessing
feature-52Cross-linkprocessing
feature-53Alternative sequencesequence
feature-54Alternative sequencesequence
feature-55Alternative sequencesequence
feature-56Alternative sequencesequence
feature-57Natural variantdisease
feature-58Natural variantdisease
feature-59Natural variantdisease
feature-60Natural variantdisease
feature-61Natural variantdisease
feature-62Natural variantdisease
feature-63Natural variantdisease
feature-64Natural variantdisease
feature-65Natural variantdisease
feature-66Natural variantdisease
feature-67Natural variantdisease
feature-68Natural variantdisease
feature-69Natural variantdisease
feature-70Natural variantdisease
feature-71Natural variantdisease
feature-72Natural variantdisease
feature-73Natural variantdisease
feature-74Natural variantdisease
feature-75Natural variantdisease
feature-76Natural variantdisease
feature-77Natural variantdisease
feature-78Natural variantdisease
feature-79Natural variantdisease
feature-80Natural variantdisease
feature-81Natural variantdisease
feature-82Natural variantdisease
feature-83Natural variantdisease
feature-84Natural variantdisease
feature-85Natural variantdisease
feature-86Natural variantdisease
feature-87Natural variantdisease
feature-88Natural variantdisease
feature-89Natural variantdisease
feature-90Natural variantdisease
feature-91Mutagenesisdisease
feature-92Mutagenesisdisease
feature-93Mutagenesisdisease
feature-94Mutagenesisdisease
feature-95Mutagenesisdisease
feature-96Mutagenesisdisease
feature-97Mutagenesisdisease
feature-98Mutagenesisdisease
feature-99Mutagenesisdisease
feature-100Mutagenesisdisease
feature-101Mutagenesisdisease
feature-102Mutagenesisdisease
feature-103Mutagenesisdisease
feature-104Mutagenesisdisease
feature-105Mutagenesisdisease
feature-106Mutagenesisdisease
feature-107Mutagenesisdisease
feature-108Mutagenesisdisease
feature-109Mutagenesisdisease
feature-110Mutagenesisdisease
feature-111Mutagenesisdisease
feature-112Mutagenesisdisease
feature-113Mutagenesisdisease
feature-114Mutagenesisdisease
feature-115Mutagenesisdisease
feature-116Mutagenesisdisease
feature-117Mutagenesisdisease
feature-118Mutagenesisdisease
feature-119Mutagenesisdisease
feature-120Mutagenesisdisease
feature-121Mutagenesisdisease
feature-122Mutagenesisdisease
feature-123Mutagenesisdisease
feature-124Mutagenesisdisease
feature-125Mutagenesisdisease
feature-126Mutagenesisdisease
feature-127Mutagenesisdisease
feature-128Mutagenesisdisease
feature-129Mutagenesisdisease
feature-130Mutagenesisdisease
feature-131Mutagenesisdisease
feature-132Mutagenesisdisease
feature-133Mutagenesisdisease
feature-134Mutagenesisdisease
feature-135Mutagenesisdisease
feature-136Mutagenesisdisease
feature-137Mutagenesisdisease
feature-138Mutagenesisdisease
feature-139Mutagenesisdisease
feature-140Mutagenesisdisease
feature-141Mutagenesisdisease
feature-142Mutagenesisdisease
feature-143Mutagenesisdisease
feature-144Mutagenesisdisease
feature-145Mutagenesisdisease
feature-146Mutagenesisdisease
feature-147Mutagenesisdisease
feature-148Mutagenesisdisease
feature-149Mutagenesisdisease
feature-150Mutagenesisdisease
feature-151Mutagenesisdisease
feature-152Mutagenesisdisease
feature-153Mutagenesisdisease
feature-154Mutagenesisdisease
feature-155Mutagenesisdisease
feature-156Mutagenesisdisease
feature-157Mutagenesisdisease
feature-158Mutagenesisdisease
feature-159Mutagenesisdisease
feature-160Mutagenesisdisease
feature-161Mutagenesisdisease
feature-162Mutagenesisdisease
feature-163Mutagenesisdisease
feature-164Mutagenesisdisease
feature-165Mutagenesisdisease
feature-166Mutagenesisdisease
feature-167Mutagenesisdisease
feature-168Sequence conflictsequence
feature-169Sequence conflictsequence
feature-170Sequence conflictsequence
feature-171Sequence conflictsequence
feature-172Sequence conflictsequence
feature-173Sequence conflictsequence
feature-174Sequence conflictsequence
feature-175Helixsequence
feature-176Helixsequence
feature-177Beta strandsequence
feature-178Helixsequence
feature-179Helixsequence
feature-180Helixsequence
feature-181Helixsequence
feature-182Helixsequence
feature-183Helixsequence
feature-184Helixsequence
feature-185Beta strandsequence
feature-186Turnsequence
feature-187Helixsequence
feature-188Beta strandsequence
feature-189Helixsequence
feature-190Helixsequence
feature-191Beta strandsequence
feature-192Turnsequence
feature-193Beta strandsequence
feature-194Helixsequence
feature-195Beta strandsequence
feature-196Turnsequence
feature-197Beta strandsequence
feature-198Helixsequence
feature-199Beta strandsequence
feature-200Helixsequence
feature-201Beta strandsequence
feature-202Helixsequence
feature-203Helixsequence
feature-204Beta strandsequence
feature-205Helixsequence
feature-206Beta strandsequence
feature-207Beta strandsequence
feature-208Helixsequence
feature-209Beta strandsequence
feature-210Beta strandsequence
feature-211Helixsequence
feature-212Helixsequence
feature-213Beta strandsequence
feature-214Helixsequence
feature-215Beta strandsequence
feature-216Helixsequence
feature-217Helixsequence
feature-218Helixsequence
feature-219Beta strandsequence
feature-220Helixsequence
feature-221Helixsequence
feature-222Turnsequence
feature-223Turnsequence
feature-224Helixsequence
feature-225Beta strandsequence
feature-226Helixsequence
feature-227Helixsequence
feature-228Beta strandsequence
feature-229Beta strandsequence
feature-230Helixsequence
feature-231Helixsequence
feature-232Helixsequence
feature-233Turnsequence
feature-234Helixsequence
feature-235Turnsequence
feature-236Helixsequence
feature-237Helixsequence
feature-238Helixsequence
feature-239Beta strandsequence
feature-240Helixsequence
feature-241Helixsequence
feature-242Beta strandsequence
feature-243Helixsequence
feature-244Helixsequence
feature-245Beta strandsequence
feature-246Helixsequence
feature-247Helixsequence
feature-248Beta strandsequence
feature-249Helixsequence
feature-250Beta strandsequence
feature-251Beta strandsequence
feature-252Helixsequence
feature-253Beta strandsequence
feature-254Beta strandsequence
feature-255Helixsequence
feature-256Beta strandsequence
feature-257Beta strandsequence
feature-258Helixsequence
feature-259Helixsequence
feature-260Beta strandsequence
feature-261Beta strandsequence
feature-262Helixsequence
feature-263Beta strandsequence
feature-264Helixsequence
feature-265Helixsequence
feature-266Beta strandsequence
feature-267Helixsequence
feature-268Beta strandsequence
feature-269Beta strandsequence
feature-270Helixsequence
feature-271Helixsequence
feature-272Beta strandsequence
feature-273Beta strandsequence
feature-274Helixsequence
feature-275Turnsequence
feature-276Beta strandsequence
feature-277Helixsequence
feature-278Beta strandsequence