gene

ADORA2A

Entity Detail — Knowledge Graph Node

Understanding Entity Pages

This page aggregates everything SciDEX knows about ADORA2A: its mechanistic relationships (Knowledge Graph edges), hypotheses targeting it, analyses mentioning it, and supporting scientific papers. The interactive graph below shows its immediate neighbors. All content is AI-synthesized from peer-reviewed literature.

131Connections
1Hypotheses
1Analyses
50Outgoing
34Incoming

No summary available yet. View on Wiki →

🧬 Gene Info
Gene SymbolADORA2A
Full NameAdenosine A2a Receptor
Chromosome22q11.23
Protein FamilyGPCR
Target ClassGpcr
Functionencodes a 412-amino acid protein primarily expressed in the striatum, olfactory tubercle, and nucleus accumbens.
Mechanism of ActionSmall molecule antagonists blocking adenosine A2A receptor signaling
Primary Expressionthe striatum, olfactory tubercle, and nucleus accumbens
DruggabilityMedium (0.57)
Clinical StageApproved
PathwaysApoptosis, Mitophagy, Oxidative Stress
GeneCardsADORA2A
Human Protein AtlasADORA2A
Associated DiseasesALZHEIMER, als, ms, neurodegeneration
Known Drugs/CompoundsIstradefylline, Preladenant, CHEMBL3989695, CHEMBL3694769, CHEMBL3942498, CHEMBL197669
InteractionsBNIP3L, BCL2, DRP1, DNM1L, BNIP3, C1Q
SciDEX TargetView Target Profile (8 clinical trials)
SciDEX HypothesesAdenosine-Astrocyte Metabolic Reset
KG Connections129 knowledge graph edges
DatabasesGeneCardsUniProtNCBI GeneHPASTRING
🧬 3D Structure: ADORA2A — PDB 4EIY Click to expand

Experimental structure from RCSB PDB | Powered by Mol*

Wiki Pages (20)

Knowledge base pages for this entity

Section 99: Purinergic Signaling and P2X/P2Y Receptors in CBS/PSP

therapeutic · 2921 words

ADCY3 — Adenylate Cyclase 3

gene · 2825 words

IL27 — Interleukin 27

gene · 2764 words

Autophagy Enhancement for Tauopathy

therapeutic · 2646 words

Adenosine Signaling in Neurodegeneration

mechanism · 2643 words

Pathway Diagram

graph TD
    ADORA2A["ADORA2A"] -->|"regulates"| ALS["ALS"]
    style ALS fill:#1a2a3a,stroke:#ef5350,stroke-width:1px,color:#fff
    ADORA2A["ADORA2A"] -->|"interacts"| Alzheimer["Alzheimer"]
    style Alzheimer fill:#1a2a3a,stroke:#ef5350,stroke-width:1px,color:#fff
    ADORA2A["ADORA2A"] -->|"regulates"| Aging["Aging"]
    style Aging fill:#1a2a3a,stroke:#ef5350,stroke-width:1px,color:#fff
    ADORA2A["ADORA2A"] -->|"associated"| neurodegeneration["neurodegeneration"]
    style neurodegeneration fill:#1a2a3a,stroke:#ef5350,stroke-width:1px,color:#fff
    ADORA2A["ADORA2A"] -->|"interacts"| BNIP3L["BNIP3L"]
    style BNIP3L fill:#1a2a3a,stroke:#ce93d8,stroke-width:1px,color:#fff
    ADORA2A["ADORA2A"] -->|"regulates"| Mitophagy["Mitophagy"]
    style Mitophagy fill:#1a2a3a,stroke:#81c784,stroke-width:1px,color:#fff
    ADORA2A["ADORA2A"] -->|"regulates"| Apoptosis["Apoptosis"]
    style Apoptosis fill:#1a2a3a,stroke:#81c784,stroke-width:1px,color:#fff
    h_41bc2d38["h-41bc2d38"] -->|"targets"| ADORA2A["ADORA2A"]
    style h_41bc2d38 fill:#1a2a3a,stroke:#4fc3f7,stroke-width:1px,color:#fff
    MITOCHONDRIAL_DYSFUNCTION["MITOCHONDRIAL DYSFUNCTION"] -->|"regulates"| ADORA2A["ADORA2A"]
    style MITOCHONDRIAL_DYSFUNCTION fill:#1a2a3a,stroke:#ce93d8,stroke-width:1px,color:#fff
    AMBRA1["AMBRA1"] -->|"interacts"| ADORA2A["ADORA2A"]
    style AMBRA1 fill:#1a2a3a,stroke:#ce93d8,stroke-width:1px,color:#fff
    DRP1["DRP1"] -->|"interacts"| ADORA2A["ADORA2A"]
    style DRP1 fill:#1a2a3a,stroke:#ce93d8,stroke-width:1px,color:#fff
    APOPTOSIS["APOPTOSIS"] -->|"regulates"| ADORA2A["ADORA2A"]
    style APOPTOSIS fill:#1a2a3a,stroke:#ce93d8,stroke-width:1px,color:#fff
    style ADORA2A fill:#4a1a6b,stroke:#4fc3f7,stroke-width:2px,color:#e0e0e0,font-weight:bold

Outgoing (96)

TargetRelationTypeStr
adenosine_metabolismregulatespathway0.80
ALSregulatesdisease0.65
Alzheimerinteracts_withdisease0.65
Agingregulatesdisease0.65
neurodegenerationassociated_withdisease0.65

Incoming (35)

SourceRelationTypeStr
h-41bc2d38targets_genehypothesis0.90
h-41bc2d38targetshypothesis0.80
AMBRA1interacts_withgene0.60
DRP1interacts_withgene0.60
BNIP3interacts_withgene0.60

Targeting Hypotheses (1)

Hypotheses where this entity is a therapeutic target

HypothesisScoreDiseaseAnalysis
Adenosine-Astrocyte Metabolic Reset 0.557 neurodegeneration Sleep disruption as cause and consequenc

Mentioning Analyses (1)

Scientific analyses that reference this entity

Sleep disruption as cause and consequence of neurodegeneration

neurodegeneration | 2026-04-01 | 7 hypotheses Top: 0.557

Related Papers (19)

Scientific publications cited in analyses involving this entity

Title & PMIDAuthorsJournalYearCitations
A lineage-resolved molecular atlas of C. elegans embryogenesis at single-cell re [PMID:31488706] Packer JS, Zhu Q, Huynh C, Sivaramakrish Science 2019 1
Metabolic asymmetry and the global diversity of marine predators. [PMID:30679341] Grady JM, Maitner BS, Winter AS, Kaschne Science 2019 1
A Never-Ending Story of Per- and Polyfluoroalkyl Substances (PFASs)? [PMID:28224793] Wang Z, DeWitt JC, Higgins CP, Cousins I Environ Sci Technol 2017 1
Gene Expression by Mouse Inner Ear Hair Cells during Development. [PMID:25904789] Scheffer DI, Shen J, Corey DP, Chen ZY J Neurosci 2015 1
Chapter 6: Structural variation and medical genomics. [PMID:23300412] Raphael BJ PLoS Comput Biol 2012 1
Caffeine and adenosine. [PMID:20164566] Ribeiro JA, Sebastião AM J Alzheimers Dis 2010 1
De novo purine synthesis reprograms the macrophage inflammatory response and the [PMID:41756441] Haskó G, Liu L, Németh ZH, Wagener G, Ak Research square 2026 0
Parthenolide inhibits methamphetamine-induced depressive-like behavior by target [PMID:41795299] Hui R, Feng T, Hou C, Xu J, Zhang R, Ji Phytomedicine : international 2026 0
Adenosine 2A receptor-dependent activation of AMPK represses TH17 cell pathogeni [PMID:40986641] Papadopoulou G, Valakos D, Polydouri I, Science signaling 2025 0
Surface d-Band Modulation via Biodirected Mineralization Enables Nanoenzymes to [PMID:41073355] Li X, Zhao Q, Feng X, Cui P, Yu J, Liang ACS nano 2025 0
Endothelial adenosine receptor 2A loss alleviates diabetic vascular calcificatio [PMID:41067595] Zhou Y, Zhao D, Ma Q, Xu J, Cai Y, Yang Pharmacological research 2025 0
Targeting adenosine 2A receptor signaling suppresses vascular calcification by r [PMID:41201506] Zhou Y, Zhao D, Ma Q, Lee S, Roh K, Cai Pharmacological research 2025 0
Transcriptional control of pancreatic cancer immunosuppression by metabolic enzy [PMID:37291128] Tang T, Huang X, Lu M, Zhang G, Han X, L Nature communications 2023 0
Intestinal microbiota: A potential target for enhancing the antitumor efficacy a [PMID:33845122] ["Luo B", "Zhang Y", "Zhang C", "Liu X", Cancer letters 2021 0
Sepsis expands a CD39+ plasmablast population that promotes immunosuppression vi [PMID:34473957] Nascimento DC, Viacava PR, Ferreira RG, Immunity 2021 0
The integration of pharmacophore-based 3D QSAR modeling and virtual screening in [PMID:30605479] ["Fan F", "Toledo Warshaviak D", "Hamade PloS one 2019 0
Pharmacogenetics and induction/consolidation therapy toxicities in acute lymphob [PMID:26644204] ["Franca R", "Rebora P", "Bertorello N", The pharmacogenomics journal 2017 0
Cord blood gene expression supports that prenatal exposure to perfluoroalkyl sub [PMID:25812627] ["Pennings J", "Jennen D", "Nygaard U", Journal of immunotoxicology 2016 0
Pharmacodynamics and pharmacokinetics of the HMG-CoA reductase inhibitors. Simil [PMID:9160173] ["Lennern\u00e4s H", "Fager G"] Clinical pharmacokinetics 1997 0