HomeAboutRankingsData Sources
© 2026 GeneE
🧬
GeneE
10 sources retrieved · Most recent: April 2026 · Index updated 15 days ago
ⓘGeneE is for informational purposes only. It is not a substitute for professional medical advice, diagnosis, or treatment.
AKR1A1
aldo-keto reductase family 1 member A1
Chromosome 1 · 1p34.1
NCBI Gene: 10327Ensembl: ENSG00000117448.15HGNC: HGNC:380UniProt: P14550
81PubMed Papers
20Diseases
0Drugs
0Pathogenic Variants
DATA QUALITY
✓ Experimental GO Evidence✓ Swiss-Prot Reviewed
glucuronolactone reductase activitydoxorubicin metabolic processcytosolGO:0005615neurodegenerative diseaseheart failuremelanomahepatocellular carcinoma
✦AI Summary

AKR1A1 is an NADPH-dependent oxidoreductase that catalyzes reduction of diverse carbonyl-containing compounds, including aldehydes, ketones, and monosaccharides, with preference for negatively charged substrates like glucuronate 1. The enzyme functions as a detoxification enzyme, reducing toxic aldehydes including methylglyoxal and lipid-derived compounds like acrolein 2. AKR1A1 also mediates S-nitroso-CoA reduction, thereby inhibiting protein S-nitrosylation and regulating metabolic reprogramming in renal proximal tubules, particularly through inhibition of PKM2 S-nitrosylation 3. The enzyme participates in xenobiotic and drug metabolism, including anthracyclines doxorubicin and daunorubicin 4. Clinically, AKR1A1 dysregulation associates with multiple pathologies. It emerges as a molecular hub for diabetic kidney disease, with deficiency contributing to cellular dysfunction 5. In osteoporosis, lactylation-dependent AKR1A1 upregulation in monocytes and macrophages drives metabolic-immune reprogramming via SPP1-CD44 signaling 6. In gastric cancer, elevated AKR1A1 promotes glucose and lipid metabolism reprogramming, driving proliferation and chemoresistance through RORα-mediated regulation 7. Additionally, ROS-dependent AKR1A1 expression shifts mesenchymal stem cell lineage commitment toward adipogenesis, implicating it in age-related osteoporosis pathogenesis 8. Loss of AKR1A1 increases oxidative stress sensitivity in astrocytes 9, highlighting its protective role against oxidative damage.

Sources cited
1
AKR1A1 catalyzes NADPH-dependent reduction of carbonyl compounds with preference for negatively charged substrates
PMID: 10510318
2
AKR1A1 reduces toxic aldehydes and mediates S-nitroso-CoA reduction to inhibit protein S-nitrosylation
PMID: 30538128
3
AKR1A1 functions as SNO-CoA reductase, regulating PKM2 S-nitrosylation and metabolic reprogramming in kidney proximal tubules
PMID: 30487609
4
AKR1A1 participates in anthracycline metabolism including doxorubicin and daunorubicin
PMID: 11306097
5
AKR1A1 identified as molecular hub for diabetic kidney disease cellular dysfunction through multiomics analysis
PMID: 38394643
6
AKR1A1 lactylation in monocytes and macrophages drives metabolic-immune reprogramming in osteoporosis via SPP1-CD44 pathway
PMID: 41246341
7
AKR1A1 promotes glucose and lipid reprogramming in gastric cancer, contributing to proliferation and chemoresistance
PMID: 40096932
8
ROS-dependent AKR1A1 expression shifts mesenchymal stem cell differentiation toward adipogenesis, contributing to osteoporosis
PMID: 40682073
9
AKR1A1 knockdown increases sensitivity to oxidative stress and aldehyde-induced cytotoxicity in astrocytes
PMID: 23643085
Disease Associationsⓘ20
neurodegenerative diseaseOpen Targets
0.42Moderate
heart failureOpen Targets
0.16Weak
melanomaOpen Targets
0.09Suggestive
hepatocellular carcinomaOpen Targets
0.09Suggestive
acute kidney injuryOpen Targets
0.08Suggestive
Miyoshi myopathyOpen Targets
0.08Suggestive
atrial fibrillationOpen Targets
0.08Suggestive
non-alcoholic steatohepatitisOpen Targets
0.07Suggestive
glycogen storage disease due to lactate dehydrogenase H-subunit deficiencyOpen Targets
0.07Suggestive
neoplasmOpen Targets
0.07Suggestive
posterior cortical atrophyOpen Targets
0.06Suggestive
deep vein thrombosisOpen Targets
0.06Suggestive
Kallmann syndromeOpen Targets
0.06Suggestive
ArthralgiaOpen Targets
0.06Suggestive
hypogonadotropic hypogonadismOpen Targets
0.06Suggestive
diabetic nephropathyOpen Targets
0.05Suggestive
alcohol sensitivity, acuteOpen Targets
0.05Suggestive
osteoarthritis, kneeOpen Targets
0.05Suggestive
cancerOpen Targets
0.05Suggestive
acatalasiaOpen Targets
0.05Suggestive
Pathogenic Variants
No pathogenic variants reported on ClinVar for this gene.
View on ClinVar ↗
Related Genes
AKR7A3Protein interaction99%GUSBProtein interaction97%KLProtein interaction97%MIOXProtein interaction97%ALDH9A1Protein interaction95%ALDH3B1Protein interaction95%
Tissue Expression6 tissues
Liver
100%
Lung
32%
Brain
29%
Ovary
25%
Heart
21%
Bone Marrow
19%
Gene Interaction Network
Click a node to explore
AKR1A1AKR7A3GUSBKLMIOXALDH9A1ALDH3B1
PROTEIN STRUCTURE
Preparing viewer…
PDB2ALR · 2.48 Å · X-ray
View on RCSB ↗
Constraintⓘ
LOEUFⓘ
0.87LoF Tolerant
pLIⓘ
0.00Tolerant
Observed/Expected LoF0.63 [0.46–0.87]
RankingsWhere AKR1A1 stands among ~20K protein-coding genes
  • #5,842of 20,598
    Most Researched81
  • #7,681of 17,882
    Most Constrained (LOEUF)0.87
Genes detectedAKR1A1
Sources retrieved10 papers
Response time—
📄 Sources
10▼
1
Multiomics Analyses Identify AKR1A1 as a Biomarker for Diabetic Kidney Disease.
PMID: 38394643
Diabetes · 2024
1.00
2
Lactylation-related gene
PMID: 41246341
Front Immunol · 2025
0.90
3
RORα inhibits proliferation and chemoresistance through AKR1A1-induced glucose and lipid reprogramming in gastric cancer.
PMID: 40096932
Cell Signal · 2025
0.80
4
AKR1A1 and Kidney Disease: Promise and Perils of the Multiverse.
PMID: 38900956
Diabetes · 2024
0.70
5
Metabolic reprogramming by the S-nitroso-CoA reductase system protects against kidney injury.
PMID: 30487609
Nature · 2019
0.60