AQP7

gene
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Also known as AQP9AQPap

Summary

AQP7 (aquaporin 7, HGNC:640) is a protein-coding gene on chromosome 9p13.3, encoding Aquaporin-7 (O14520). Aquaglyceroporins form homotetrameric transmembrane channels, with each monomer independently mediating glycerol and water transport across the plasma membrane along their osmotic gradient. It is a selective cancer dependency (DepMap: 40.0% of cell lines).

This gene encodes a member of the aquaporin family of water-selective membrane channels. The encoded protein localizes to the plasma membrane and allows movement of water, glycerol and urea across cell membranes. This gene is highly expressed in the adipose tissue where the encoded protein facilitates efflux of glycerol. In the proximal straight tubules of kidney, the encoded protein is localized to the apical membrane and prevents excretion of glycerol into urine. The encoded protein is present in spermatids, as well as in the testicular and epididymal spermatozoa suggesting an important role in late spermatogenesis. Alternative splicing of this gene results in multiple transcript variants encoding different isoforms. This gene is located adjacent to a related aquaporin gene on chromosome 9. Multiple pseudogenes of this gene have been identified.

Source: NCBI Gene 364 — RefSeq curated summary.

At a glance

  • GWAS associations: 51
  • Clinical variants (ClinVar): 86 total
  • Cancer dependency (DepMap): dependent in 40.0% of screened cell lines
  • MANE Select transcript: NM_001170

Identifiers

Gene identifiers

FieldValue
HGNC IDHGNC:640
Approved symbolAQP7
Nameaquaporin 7
Location9p13.3
Locus typegene with protein product
StatusApproved
AliasesAQP9, AQPap
Ensembl geneENSG00000165269
Ensembl biotypeprotein_coding
OMIM602974
Entrez364

Gene structure

Transcript identifiers

Ensembl transcripts: 29 — 19 protein_coding, 5 nonsense_mediated_decay, 3 protein_coding_CDS_not_defined, 2 retained_intron

ENST00000297988, ENST00000377425, ENST00000379503, ENST00000379506, ENST00000379507, ENST00000439678, ENST00000447660, ENST00000537089, ENST00000623097, ENST00000623519, ENST00000623743, ENST00000624005, ENST00000624075, ENST00000624095, ENST00000624420, ENST00000624432, ENST00000624890, ENST00000625032, ENST00000625109, ENST00000898395, ENST00000898396, ENST00000898397, ENST00000898398, ENST00000898399, ENST00000898400, ENST00000967226, ENST00000967227, ENST00000967228, ENST00000967229

RefSeq mRNA: 7 — MANE Select: NM_001170 NM_001170, NM_001318156, NM_001318157, NM_001318158, NM_001376191, NM_001376192, NM_001376193

CCDS: CCDS6541, CCDS83353, CCDS83354, CCDS83356

Canonical transcript exons

ENST00000297988 — 8 exons

ExonStartEnd
ENSE000010917513340237333402568
ENSE000016442593338319133385290
ENSE000034434133338564933385866
ENSE000035633873339507833395195
ENSE000035838863338696933387092
ENSE000036023513340123733401287
ENSE000037561693338640433386541
ENSE000037598113338607733386195

Expression profiles

Bgee: expression breadth ubiquitous, 139 present calls, max score 99.15.

FANTOM5 (CAGE): breadth tissue_specific, TPM avg 0.2286 / max 23.0039, expressed in 63 samples.

FANTOM5 promoters (2 alternative TSS)

Promoter IDTPM avgSamples expressed
1004550.128751
1004540.099937

Top tissues by expression

142 total, by Bgee expression score (0-100, higher = more expressed):

TissueAnatomy IDExpression scoreQuality
apex of heartUBERON:000209899.15gold quality
omental fat padUBERON:001041498.59gold quality
adipose tissueUBERON:000101398.58gold quality
subcutaneous adipose tissueUBERON:000219098.57gold quality
heart left ventricleUBERON:000208497.98gold quality
sural nerveUBERON:001548897.31gold quality
right atrium auricular regionUBERON:000663196.43gold quality
hindlimb stylopod muscleUBERON:000425295.38gold quality
heartUBERON:000094895.21gold quality
mammary glandUBERON:000191193.80gold quality
thoracic mammary glandUBERON:000520093.80gold quality
tibial nerveUBERON:000132393.33gold quality
mucosa of stomachUBERON:000119993.23gold quality
duodenumUBERON:000211492.19gold quality
vastus lateralisUBERON:000137991.70gold quality
quadriceps femorisUBERON:000137791.24gold quality
right lobe of liverUBERON:000111491.13gold quality
left testisUBERON:000453391.08gold quality
right testisUBERON:000453491.05gold quality
testisUBERON:000047390.51gold quality
muscle of legUBERON:000138390.42gold quality
liverUBERON:000210790.22gold quality
adult mammalian kidneyUBERON:000008290.21gold quality
gastrocnemiusUBERON:000138890.08gold quality
skeletal muscle tissueUBERON:000113489.95gold quality
right uterine tubeUBERON:000130289.10gold quality
small intestine Peyer’s patchUBERON:000345488.45gold quality
small intestineUBERON:000210887.89gold quality
kidneyUBERON:000211386.82gold quality
muscle tissueUBERON:000238586.54gold quality

Single-cell (SCXA)

Detected in 1 experiment(s), a significant marker in 1.

ExperimentMarker?Max mean expression
E-ANND-3yes4.33

Regulation

Is transcription factor: no

Upstream regulators (CollecTRI, top): PPARA, PPARG

Functional genomics

DepMap (CRISPR cell-line fitness): dependent in 40.0% of screened cell lines.

Literature-anchored findings (GeneRIF, showing 39)

  • determination of genomic structure, promotor analysis and functional mutation (PMID:11952783)
  • In summary, our data show that the AQP7 gene is differentially expressed in adipose tissue of lean and obese individuals. (PMID:16325777)
  • AQP7 downregulation is pathogenic for obesity and/or type 2 diabetes. (PMID:17351148)
  • Dysfunction of AQP7 in the periadventitial fat may trigger the inflammation involved in aatherosclerosis. (PMID:17562358)
  • Expression of AQP7 is down-regulated in women with severe obesity. The expression of this glycerol channel is not affected by type 2 diabetes. (PMID:17566090)
  • increased gene expression in visceral adipose tissue and liver in morbid obesity (PMID:18401671)
  • we found a greater expression found in visceral fat, and between subcutaneous adipose AQP7 and hepatic aquaporin 9 gene expression within the context of human morbid obesity (PMID:19615702)
  • these data suggest a subtle regulation between adipose depots of the sole adipose aquaporin, AQP7, which is unbalanced in obesity and T2D. (PMID:20463097)
  • Diazoxide may have an impact on myocardial water balance and glycerol energy supply by decreasing relative aquaporin-7 expression during coronary artery bypass grafting. (PMID:21609198)
  • In all of the 33 investigated semen samples, we observed AQP7 binding to the sperm sur-face with different intensity and modality. (PMID:22206455)
  • There is a coordinated regulation of adipose AQP7 and hepatic AQP9 gene expression that is distorted in metabolic syndrome X. (PMID:22425521)
  • The discovery of an association between urine glycerol loss and a platelet secretion defect is a novel one, and our findings imply the involvement of AQPs in platelet secretion. (PMID:22899094)
  • AQP7 is regulated in response to physical training in a gender-dependent manner in adipose tissue. (PMID:23001483)
  • AQP7 overexpression may be related to insulin sensitivity and glucose homeostasis in women with the polycystic ovary syndrome. (PMID:23235401)
  • AQP7 is expressed in human and mouse oocytes and upregulated by cryoprotectants. (PMID:23290745)
  • AQP7-specific glycerol transport was furthermore found to be specifically inhibited. (PMID:24334538)
  • a direct involvement of AQP7 in water and glycerol transport (PMID:24376702)
  • REVIEW: the current knowledge on the role of the glycerol channels AQP7 and AQP9 in controlling glycerol metabolism in adipose tissue and liver (PMID:24463099)
  • the human aquaglyceroporins, i.e., AQP3, AQP7, AQP9 and AQP10 can act as silicon transporters in both Xenopus laevis oocytes and HEK-293 cells. (PMID:26313002)
  • AQP3 was upregulated, and AQP7 and AQP9 were downregulated in hepatocellular carcinoma. A high expression of AQP3 and low expression of AQP7 was significantly associated with the aggressive features of hepatocellular carcinoma. (PMID:27121567)
  • ex vivo studies in human primary adipocytes, demonstrate that perilipin 1 binds to AQP7, and that catecholamine activated protein kinase A phosphorylates the N-terminus of AQP7, thereby reducing complex formation (PMID:27832861)
  • Aquaporins AQP3, -7, -8, and -11 proteins were found in sperm cells and localized in the head (AQP7), in the middle piece (AQP8) and in the tail (AQP3 and -11) in both the plasma membrane and in intracellular structures. (PMID:28042826)
  • adipose tissue lipolysis. However, in contrast to SAT AQP7, skeletal muscle AQP7 protein abundance is markedly increased in obese T2D men, potentially contributing to the excess lipid accumulation in skeletal muscle in type 2 diabetes (PMID:29783856)
  • AQP7 messenger RNA (mRNA) was increased in the younger obese prepubertal children but decreased in the obese adolescents (p=0.014) who also had increased insulin and homeostatic model assessment - insulin resistance. (PMID:30226208)
  • Identification of functional estrogen response elements in glycerol channel Aquaporin-7 gene. (PMID:30888885)
  • NEAT1 played an important role in the activation of ERalpha to regulate AQP7-mediated hepatic steatosis (PMID:31062612)
  • Structural Basis for Glycerol Efflux and Selectivity of Human Aquaporin 7. (PMID:31831212)
  • Glucocorticoid gene regulation of aquaporin-7. (PMID:32061341)
  • The metabolic implications of aquaporin 7 (AQP7) promoter variants in lean children and children with obesity. (PMID:32146590)
  • Aquaporin-7 Regulates the Response to Cellular Stress in Breast Cancer. (PMID:32631905)
  • AQP7 mediates post-menopausal lipogenesis in adipocytes through FSH-induced transcriptional crosstalk with AP-1 sites. (PMID:33132060)
  • Different expression and localization of aquaporin 7 and aquaporin 9 in granulosa cells, oocytes, and embryos of patients with polycystic ovary syndrome and the negatively correlated relationship with insulin regulation. (PMID:33579525)
  • Association of Aquaporin-3, Aquaporin-7, NOS3 and CYBA polymorphisms with hypertensive disorders in women. (PMID:33652340)
  • Aquaglyceroporins and orthodox aquaporins in human adipocytes. (PMID:34627746)
  • [Association study of single nucleotide polymorphisms of AQP7 and AQP9 genes with type 2 diabetes mellitus among ethnic Han Chinese population]. (PMID:35076928)
  • Cholecystokinin promotes functional expression of the aquaglycerol channel aquaporin 7 in adipocytes. (PMID:35366004)
  • Cryo-EM structure supports a role of AQP7 as a junction protein. (PMID:36737436)
  • Aquaporin-7-Mediated Glycerol Permeability Is Linked to Human Sperm Motility in Asthenozoospermia and during Sperm Capacitation. (PMID:37566082)
  • The Important Role of Aquaglyceroporin 7 in Health and Disease. (PMID:39456161)

Cross-species orthologs

8 orthologs

OrganismSymbolGene ID
danio_rerioaqp7ENSDARG00000026787
mus_musculusAqp7ENSMUSG00000028427
rattus_norvegicusAqp7ENSRNOG00000009686
drosophila_melanogasterEglp1FBGN0034882
drosophila_melanogasterEglp2FBGN0034883
drosophila_melanogasterEglp3FBGN0034884
drosophila_melanogasterEglp4FBGN0034885
caenorhabditis_elegansWBGENE00000170

Paralogs (11): AQP6 (ENSG00000086159), AQP8 (ENSG00000103375), AQP9 (ENSG00000103569), MIP (ENSG00000135517), AQP10 (ENSG00000143595), AQP5 (ENSG00000161798), AQP3 (ENSG00000165272), AQP2 (ENSG00000167580), AQP4 (ENSG00000171885), AQP1 (ENSG00000240583), AQP7B (ENSG00000259916)

Protein

Protein identifiers

Aquaporin-7O14520 (reviewed: O14520)

Alternative names: Aquaglyceroporin-7, Aquaporin adipose, Aquaporin-7-like

All UniProt accessions (12): A0A096LNK2, A0A096LNN5, A0A096LNU3, A0A096LNV7, A0A096LP23, A0A096LP64, B7Z4U2, O14520, Q5T5L3, Q5T5M0, Q5T5M1, Q6P5T0

UniProt curated annotations — full annotation on UniProt →

Function. Aquaglyceroporins form homotetrameric transmembrane channels, with each monomer independently mediating glycerol and water transport across the plasma membrane along their osmotic gradient. Could also be permeable to urea. Mediates the efflux of glycerol, formed upon triglyceride hydrolysis, to avoid its accumulation in adipocytes and to make it available to other tissues. In the kidney, mediates the reabsorption of glycerol, preventing its loss in urine, again participating to energy homeostasis. In pancreatic beta cells, it also mediates the efflux of glycerol, regulating its intracellular levels.

Subunit / interactions. Homotetramer; each monomer provides an independent glycerol/water pore. Two homotetramers on opposing membranes can dimerize, forming a cell-cell junction. Interacts with PLIN1.

Subcellular location. Cell membrane. Cytoplasmic vesicle membrane. Lipid droplet.

Tissue specificity. Detected in the sperm head (at protein level). Detected in white adipose tissue.

Post-translational modifications. Phosphorylation by PKA could prevent the interaction with PLIN1.

Activity regulation. Glycerol transport is regulated by pH, with the porin being permeable to glycerol at pH 7.4 but not at pH 5.5. Water permeability, however, is not influenced by pH. Inhibited by mercury ions.

Domain organisation. Aquaporins contain two tandem repeats each containing three membrane-spanning domains and a pore-forming loop with the signature motif Asn-Pro/Ala-Ala/Ser (NPA).

Polymorphism. Genetic variations in AQP7 are responsible for changes in glycerol release during exercise and define the glycerol quantitative trait locus (GLYCQTL) [MIM:614411].

Similarity. Belongs to the MIP/aquaporin (TC 1.A.8) family.

Isoforms (2)

UniProt IDNamesCanonical?
O14520-11yes
O14520-22

RefSeq proteins (7): NP_001161, NP_001305085, NP_001305086, NP_001305087, NP_001363120, NP_001363121, NP_001363122 (=MANE)

Domains & families (InterPro)

IDNameType
IPR000425MIPFamily
IPR023271Aquaporin-likeHomologous_superfamily
IPR050363MIP/AquaporinFamily

Pfam: PF00230

Catalyzed reactions (Rhea), 3 shown:

  • H2O(in) = H2O(out) (RHEA:29667)
  • glycerol(in) = glycerol(out) (RHEA:29675)
  • urea(in) = urea(out) (RHEA:32799)

UniProt features (56 total): helix 12, topological domain 9, transmembrane region 6, mutagenesis site 6, sequence variant 5, turn 5, site 4, intramembrane region 2, short sequence motif 2, splice variant 2, chain 1, modified residue 1, strand 1

Structure

Experimental structures (PDB)

8 structures.

PDBMethodResolution (Å)
6QZIX-RAY DIFFRACTION1.9
6QZJX-RAY DIFFRACTION2.2
8Y8VELECTRON MICROSCOPY2.49
8AMXELECTRON MICROSCOPY2.55
8AMWELECTRON MICROSCOPY3
8C9HELECTRON MICROSCOPY3.2
6KXWX-RAY DIFFRACTION3.7
6N1GX-RAY DIFFRACTION4

Predicted structure (AlphaFold)

ModelpLDDTFraction very-high
AF-O14520-F184.810.71

Functional residue map

Curated UniProt residues grouped by drug-discovery relevance — catalytic, ligand-binding, modification, and mutation-validated positions. Source: UniProtKB sequence features.

Catalytic / active sites (4): 74 (selectivity filter); 135 (important for permeability to glycerol); 223 (selectivity filter); 229 (selectivity filter)

Post-translational modifications (1): 20

Mutagenesis-validated functional residues (6):

PositionPhenotype
10–11loss of phosphorylation by pka. increased interaction with plin1.
67no effect on glycerol channel activity. no effect on water channel activity.
74no effect on glycerol channel activity. no effect on water channel activity. decreased glycerol channel activity; when a
135strongly decreased glycerol channel activity. mildly decreased water channel activity.
165decreased glycerol channel activity. mildly decreased water channel activity.
223no effect on glycerol channel activity. no effect on water channel activity. decreased glycerol channel activity; when a

Function

Pathways and Gene Ontology

Reactome pathways

4 pathways

IDPathway
R-HSA-432030Transport of glycerol from adipocytes to the liver by Aquaporins
R-HSA-432047Passive transport by Aquaporins
R-HSA-382551Transport of small molecules
R-HSA-445717Aquaporin-mediated transport

MSigDB gene sets: 463 (showing top): GOBP_RESPONSE_TO_NITROGEN_COMPOUND, GOBP_CARBOHYDRATE_TRANSPORT, MORF_FLT1, MORF_MSH3, GOLDRATH_IMMUNE_MEMORY, MODULE_45, MODULE_64, MORF_BRCA1, TGACCTY_ERR1_Q2, HNF1_Q6, MORF_ESR1, GOBP_CELLULAR_RESPONSE_TO_OXYGEN_CONTAINING_COMPOUND, MORF_RAD51L3, GCM_MYCL1, GOBP_ORGANIC_HYDROXY_COMPOUND_TRANSPORT

GO Biological Process (4): water transport (GO:0006833), glycerol transmembrane transport (GO:0015793), transmembrane transport (GO:0055085), urea transmembrane transport (GO:0071918)

GO Molecular Function (5): urea transmembrane transporter activity (GO:0015204), water channel activity (GO:0015250), glycerol channel activity (GO:0015254), protein binding (GO:0005515), channel activity (GO:0015267)

GO Cellular Component (8): cytoplasm (GO:0005737), lipid droplet (GO:0005811), plasma membrane (GO:0005886), cell-cell junction (GO:0005911), basolateral plasma membrane (GO:0016323), cytoplasmic vesicle membrane (GO:0030659), membrane (GO:0016020), cytoplasmic vesicle (GO:0031410)

Reactome top-level categories

Rollup of top-2 pathways:

CategoryPathways
Aquaporin-mediated transport2
Transport of small molecules1

GO top-level categories

Rollup of top GO terms by namespace:

CategoryTerms
channel activity2
cellular anatomical structure2
fluid transport1
polyol transmembrane transport1
carbohydrate transmembrane transport1
transport1
cellular process1
urea transport1
transmembrane transport1
transmembrane transporter activity1
urea transmembrane transport1
water transmembrane transporter activity1
glycerol transmembrane transporter activity1
binding1
passive transmembrane transporter activity1
intracellular anatomical structure1
intracellular membraneless organelle1
membrane1
cell periphery1
anchoring junction1
basal plasma membrane1
plasma membrane region1
vesicle membrane1
cytoplasmic vesicle1
cytoplasm1
intracellular vesicle1

Protein interactions and networks

STRING

3112 interactions, top by confidence (×1000):

Protein AProtein BPartner UniProtScore
AQP7AQP11Q8NBQ7914
AQP7AQP12AQ8IXF9858
AQP7PLIN1O60240617
AQP7GK2Q14410579
AQP7GKP32189578
AQP7AQP8O94778573
AQP7ADIPOQQ15848557
AQP7CFTRP13569551
AQP7C14orf180Q8N912531
AQP7AQP12BA6NM10523
AQP7ACSL1P33121518
AQP7AQP6Q13520510
AQP7PROK2Q9HC23480
AQP7TLR2O60603458
AQP7FCGR3BO75015449

IntAct

6 interactions, top by confidence:

ABTypeScore
AQP7PLIN1psi-mi:“MI:0914”(association)0.570
PLIN1AQP7psi-mi:“MI:2364”(proximity)0.570
PLIN1AQP7psi-mi:“MI:0915”(physical association)0.570
PLIN1AQP7psi-mi:“MI:0403”(colocalization)0.570
MEP1BAQP7psi-mi:“MI:0915”(physical association)0.370

BioGRID (6): AQP7 (Two-hybrid), AQP7 (Two-hybrid), AQP7 (Two-hybrid), ABHD16A (Two-hybrid), AQP7 (Negative Genetic), AQP7 (Affinity Capture-MS)

ESM2 similar proteins: A0A075B734, A1L272, A2IBY8, A8W649, A9Y006, D4A7H1, E7EXX2, F7B113, O14520, O35454, O54794, O62735, O94956, P34080, P35525, P41181, P47862, P47863, P47864, P51789, P51797, P56402, P56403, P79099, Q06495, Q06496, Q08DE6, Q4R691, Q5PQL3, Q62052, Q866S3, Q8BLV3, Q8BXB6, Q8BZ00, Q8IVB4, Q8K078, Q8MIQ9, Q8R2N1, Q8TCT8, Q921R8

Diamond homologs: A0A075B734, A0A384JPP3, A0A384JSZ0, A9Y006, B0D4E4, B0D4J9, B0D4K0, B0DLE4, B1VB61, F9USY3, F9UTW9, F9UUB3, G5CTF9, G5CTG0, G5CTG1, G5CTG4, G5CTG5, G5CTG6, G5CTG7, I1CR68, I1CS06, I1RHJ1, I1RIY3, I1Z8E7, I1Z8E8, I1Z8E9, I1Z8F0, I3W9F7, O14520, O43315, O54794, O62735, O77697, O77714, O77722, O77740, P0A3Q7, P0A3Q8, P0AER0, P0AER1

SIGNOR signaling

0 interactions.

Disease & clinical

Clinical variants and AI predictions

ClinVar

86 variants total. Per-class counts are floors (≥ shown; pagination cap):

ClassificationCount (floor)
Pathogenic0
Likely pathogenic0
Uncertain significance49
Likely benign3
Benign5

Top pathogenic / likely-pathogenic (0)

SpliceAI

807 predictions. Top by Δscore:

VariantEffectΔscore
15:58173062:TTGCA:Tacceptor_loss1.0000
15:58173063:TGCAG:Tacceptor_loss1.0000
15:58173064:GCAG:Gacceptor_loss1.0000
15:58173065:CA:Cacceptor_loss1.0000
15:58173066:A:ATacceptor_loss1.0000
15:58179346:G:GGdonor_gain1.0000
15:58166667:TTCCA:Tacceptor_loss0.9900
15:58166668:TCCAG:Tacceptor_loss0.9900
15:58166669:CCAGG:Cacceptor_loss0.9900
15:58166670:CAGGT:Cacceptor_loss0.9900
15:58166671:A:Cacceptor_loss0.9900
15:58166795:CTCTG:Cdonor_loss0.9900
15:58166796:TCTGG:Tdonor_loss0.9900
15:58166797:CTGGT:Cdonor_loss0.9900
15:58166799:GGTAA:Gdonor_loss0.9900
15:58166800:G:GGdonor_gain0.9900
15:58166800:G:Tdonor_loss0.9900
15:58166801:T:Adonor_loss0.9900
15:58166802:AA:Adonor_loss0.9900
15:58173066:A:AGacceptor_gain0.9900
15:58173066:AGGT:Aacceptor_gain0.9900
15:58173067:G:GGacceptor_gain0.9900
15:58173067:GGT:Gacceptor_gain0.9900
15:58173067:GGTG:Gacceptor_gain0.9900
15:58173203:ATGGT:Adonor_loss0.9900
15:58173204:TG:Tdonor_gain0.9900
15:58173205:GG:Gdonor_gain0.9900
15:58173206:G:GAdonor_loss0.9900
15:58173206:G:GGdonor_gain0.9900
15:58173207:T:Gdonor_loss0.9900

AlphaMissense

2220 scored. Top likely-pathogenic:

VariantProtein changeam_pathogenicity
9:33385714:G:CN226K0.996
9:33385714:G:TN226K0.996
9:33395093:G:CS43R0.995
9:33395093:G:TS43R0.995
9:33395095:T:GS43R0.995
9:33386128:A:CF158L0.994
9:33386128:A:TF158L0.994
9:33386130:A:GF158L0.994
9:33386528:G:CN94K0.994
9:33386528:G:TN94K0.994
9:33387015:A:CF74L0.992
9:33387015:A:TF74L0.992
9:33387017:A:GF74L0.992
9:33385706:C:GR229P0.991
9:33387013:C:TG75D0.990
9:33385691:C:GR234P0.989
9:33385668:A:GW242R0.988
9:33385668:A:TW242R0.988
9:33385703:T:CD230G0.988
9:33385703:T:GD230A0.988
9:33385704:C:GD230H0.988
9:33385692:G:TR234S0.987
9:33386433:G:TA126E0.986
9:33387007:C:TG77E0.986
9:33385666:C:AW242C0.985
9:33385666:C:GW242C0.985
9:33385752:C:AG214W0.985
9:33385772:C:TG207D0.985
9:33385773:C:GG207R0.985
9:33386445:C:TG122D0.985

dbSNP variants (sampled 300 via entrez): RS1000019325 (9:33394171 C>A,T), RS1000235844 (9:33390938 C>G,T), RS1000260940 (9:33396673 G>C), RS1000329908 (9:33386640 C>A,T), RS1000420197 (9:33388642 C>G), RS1000986955 (9:33401126 A>C), RS1001173799 (9:33383849 A>G,T), RS1001226062 (9:33388267 C>T), RS1001708447 (9:33383668 C>T), RS1001731930 (9:33397690 A>G), RS1001929711 (9:33397928 T>C), RS1002030388 (9:33387356 A>T), RS1002107892 (9:33403179 G>A), RS1002515235 (9:33392448 A>G), RS1002582386 (9:33400416 C>G)

Disease associations

OMIM: gene MIM:602974 | disease phenotypes:

GenCC curated gene-disease

Mondo (0):

Orphanet (0):

HPO phenotypes

0 total (0 of 0 shown, HPO-id order):

GWAS associations

51 associations (top):

StudyTraitp-value
GCST001639_33Metabolite levels3.000000e-27
GCST002987_11Stroke4.000000e-08
GCST002987_25Stroke4.000000e-08
GCST002988_7Ischemic stroke5.000000e-07
GCST002988_9Ischemic stroke5.000000e-07
GCST004744_13Lung adenocarcinoma9.000000e-07
GCST004746_44Small cell lung carcinoma4.000000e-06
GCST006004_5Low density lipoprotein cholesterol levels2.000000e-08
GCST006586_23Urinary albumin excretion1.000000e-08
GCST007638_47Glycine levels3.000000e-09
GCST008070_113HDL cholesterol levels2.000000e-06
GCST008070_115HDL cholesterol levels6.000000e-64
GCST008070_140HDL cholesterol levels3.000000e-09
GCST008070_44HDL cholesterol levels5.000000e-124
GCST008070_69HDL cholesterol levels2.000000e-50
GCST008074_114Triglyceride levels x alcohol consumption (regular vs non-regular drinkers) interaction (2df)6.000000e-15
GCST008074_34Triglyceride levels x alcohol consumption (regular vs non-regular drinkers) interaction (2df)8.000000e-34
GCST008074_74Triglyceride levels x alcohol consumption (regular vs non-regular drinkers) interaction (2df)8.000000e-17
GCST008075_132HDL cholesterol levels x alcohol consumption (regular vs non-regular drinkers) interaction (2df)6.000000e-14
GCST008075_138HDL cholesterol levels x alcohol consumption (regular vs non-regular drinkers) interaction (2df)3.000000e-294
GCST008075_204HDL cholesterol levels x alcohol consumption (regular vs non-regular drinkers) interaction (2df)3.000000e-97
GCST008075_3HDL cholesterol levels x alcohol consumption (regular vs non-regular drinkers) interaction (2df)4.000000e-186
GCST008075_96HDL cholesterol levels x alcohol consumption (regular vs non-regular drinkers) interaction (2df)1.000000e-08
GCST008076_23Triglyceride levels4.000000e-24
GCST008076_62Triglyceride levels6.000000e-09
GCST008076_87Triglyceride levels7.000000e-16
GCST008079_93LDL cholesterol levels x alcohol consumption (drinkers vs non-drinkers) interaction (2df)4.000000e-06
GCST008083_107Triglyceride levels x alcohol consumption (drinkers vs non-drinkers) interaction (2df)2.000000e-36
GCST008083_156Triglyceride levels x alcohol consumption (drinkers vs non-drinkers) interaction (2df)4.000000e-17
GCST008083_66Triglyceride levels x alcohol consumption (drinkers vs non-drinkers) interaction (2df)2.000000e-16

EFO canonical traits (11, from GWAS)

EFO IDTrait name
EFO:0004723coronary artery calcification
EFO:0004611low density lipoprotein cholesterol measurement
EFO:0004285albuminuria
EFO:0009767glycine measurement
EFO:0004612high density lipoprotein cholesterol measurement
EFO:0004530triglyceride measurement
EFO:0004329alcohol drinking
EFO:0010367lysophosphatidylethanolamine 18:0 measurement
EFO:0010410triacylglycerol 50:3 measurement
EFO:0004736aspartate aminotransferase measurement
EFO:0004533alkaline phosphatase measurement

Drugs & pharmacology

Drug and pharmacology data

Is drug target: no

PharmGKB: 1 entry (VIP=true, CPIC=false)

GtoPdb / IUPHAR curated pharmacology

(IUPHAR/BPS Guide to Pharmacology — expert-curated)

Target class: other ic — Aquaporins

CTD chemical–gene interactions

41 total (human), top 30 by PubMed support.

ChemicalActions (top 5)PubMed papers
Benzo(a)pyrenedecreases expression, increases mutagenesis, affects cotreatment, increases expression4
sodium arseniteincreases expression, decreases expression, decreases reaction, increases abundance3
Acetaminophendecreases expression, increases expression3
Dexamethasoneincreases expression, affects cotreatment, decreases expression3
bisphenol Sincreases expression, affects cotreatment, decreases expression2
Aflatoxin B1decreases expression, increases methylation2
Particulate Matterdecreases expression, increases abundance, increases expression, affects cotreatment2
benzo(b)fluorantheneaffects cotreatment, increases expression1
hydroxyhydroquinoneincreases expression1
arseniteincreases uptake1
mono-(2-ethylhexyl)phthalateincreases expression1
tris(1,3-dichloro-2-propyl)phosphateincreases expression1
benz(a)anthraceneaffects cotreatment, increases expression1
chryseneincreases expression, affects cotreatment1
tamibaroteneaffects expression1
jinfukangaffects cotreatment, increases expression1
Resveratrolaffects cotreatment, decreases expression1
Arsenic Trioxideaffects cotreatment, increases expression, decreases reaction1
Air Pollutantsincreases abundance, increases expression1
Allergensdecreases expression, increases abundance, affects cotreatment1
Arsenicdecreases reaction, increases abundance, increases expression1
Atrazineincreases expression1
Vehicle Emissionsaffects cotreatment, decreases expression, increases abundance1
Calcitrioldecreases expression, decreases reaction, increases abundance, increases expression1
Cisplatinaffects cotreatment, increases expression1
Diazinondecreases methylation1
Doxorubicindecreases expression1
Glucoseaffects cotreatment, increases expression, decreases reaction1
Glycerolaffects metabolic processing1
Indomethacinaffects cotreatment, decreases expression, increases expression1

Clinical trials (associated diseases)

0 trials via MONDO — disease-level, not drug-specific.

  • Disease cohort memberships (association, not causation — diseases whose associated-gene cohort lists this gene; a subset are also under Associated diseases): small cell lung carcinoma