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Gaps

3,545 items
IdTitleStatusPriority ScoreComposite ScoreCreated AtDebate CountLast Debated AtDomain
gap-pubmed-20260410-What mechanisms determine disease-specific patterns of microglial glucose metaboresolved0.800.002026-04-100neurodegeneration
gap-pubmed-20260410-How does TREK-1 channel mechanosensitivity integrate with glucocorticoid signaliopen0.770.002026-04-100mechanobiology
gap-pubmed-20260410-What molecular mechanisms link glucocorticoid exposure to TREK-1 transcriptionalopen0.840.002026-04-100molecular-neurobiology
gap-pubmed-20260410-How do differential changes in mechanosensitive ion channel families translate topen0.730.002026-04-100cellular-neuroscience
gap-pubmed-20260410-What molecular mechanisms drive TNF-α-induced upregulation of TRPA1 and TRPM8 inopen0.800.002026-04-100neuroinflammation
gap-pubmed-20260410-What mechanisms explain CHIP's protective effects in Alzheimer's disease versus resolved0.780.002026-04-100neurodegeneration
gap-pubmed-20260410-How do specific mutations in TET2, DNMT3A, and ASXL1 alter microglial function iopen0.820.002026-04-100neuroinflammation
gap-pubmed-20260410-What mechanisms explain why clonal hematopoiesis protects against Alzheimer's diresolved0.850.002026-04-100neurodegeneration
gap-pubmed-20260410-How does P2RX7 purinergic signaling mechanistically regulate pancreatic β-cell fopen0.600.002026-04-100metabolic-signaling
gap-pubmed-20260410-What functional role does the mCH signature play in X-chromosome inactivation esopen0.740.002026-04-100epigenetics
gap-pubmed-20260410-How does the widespread methylome reconfiguration during synaptogenesis functionopen0.760.002026-04-100synaptic-biology
gap-pubmed-20260410-What mechanisms drive the accumulation of non-CG methylation specifically in neuopen0.800.002026-04-100neurodevelopment
gap-pubmed-20260410-What are the specific molecular mechanisms by which TET2 dysregulation causes inopen0.790.002026-04-100neuroinflammation
gap-pubmed-20260410-How does TET2 regulate inflammation independent of its enzymatic DNA demethylatiopen0.770.002026-04-100neuroinflammation
gap-pubmed-20260410-How do upregulated P2X7 receptors and NLRP3 inflammasomes interact in COVID-19 nresolved0.810.002026-04-100neuroinflammation
gap-pubmed-20260410-What mechanisms link purinergic signaling to coagulation pathways in COVID-19 neopen0.790.002026-04-100neuroinflammation
gap-pubmed-20260410-Why does PIKFYVE inhibition rescue diverse ALS forms with different genetic etioresolved0.850.002026-04-100neurodegeneration
gap-pubmed-20260410-How does PIKFYVE inhibition activate unconventional protein clearance via exocytpartially_addressed0.890.002026-04-100neurodegeneration
gap-pubmed-20260410-What determines cell-type specific regulation of TGM2 alternative splicing in thopen0.770.002026-04-100neurodegeneration
gap-pubmed-20260410-How do C-terminal truncated TGM2 splice variants mechanistically contribute to nopen0.800.002026-04-100neurodegeneration
gap-pubmed-20260410-How does intracellular serotonin in neuronal nuclei regulate protein function inopen0.740.002026-04-100neurodegeneration
gap-pubmed-20260410-What are the specific SERT posttranslational modifications involved in AD pathogopen0.790.002026-04-100neurodegeneration
gap-pubmed-20260410-How does serotonylation mechanistically contribute to Alzheimer's disease pathogopen0.800.002026-04-100neurodegeneration
gap-pubmed-20260410-Does Tgm2-mediated microglial senescence contribute to specific neurodegenerativresolved0.800.002026-04-100neurodegeneration
gap-pubmed-20260410-What determines the specificity of Tgm2 for K22 and Q248 residues on IκBα versusopen0.790.002026-04-100neuroinflammation
gap-pubmed-20260410-How does Tgm2-mediated IκBα cross-linking mechanistically differ from canonical resolved0.820.002026-04-100neuroinflammation
gap-pubmed-20260410-What determines the specificity of TGM2's dual binding to both SDC1 and LC3 duriopen0.790.002026-04-100neurodegeneration
gap-pubmed-20260410-How does the SDC1-TGM2-EPG5 autophagy mechanism differ between normal brain cellopen0.800.002026-04-100neurodegeneration
gap-pubmed-20260410-What determines ALKBH5's substrate specificity for different mRNA targets?open0.740.002026-04-100rna-metabolism
gap-pubmed-20260410-How does ALKBH5-mediated m6A demethylation mechanistically link to spermatocyte open0.770.002026-04-100rna-metabolism
gap-pubmed-20260410-Can targeting stress granule-senescence interplay provide therapeutic interventiopen0.760.002026-04-100neurodegeneration
gap-pubmed-20260410-How does senescence switch from anti-tumorigenic to pro-tumorigenic in glioma propen0.820.002026-04-100neurodegeneration
gap-pubmed-20260410-What molecular mechanisms link stress granule dynamics to senescence-associated resolved0.800.002026-04-100neurodegeneration
gap-pubmed-20260410-What determines whether stress granules undergo normal disassembly versus patholresolved0.850.002026-04-100neurodegeneration
gap-pubmed-20260410-Why is G3BP1 ubiquitination required only for heat shock but not other stress-inresolved0.830.002026-04-100neurodegeneration
gap-pubmed-20260410-Which PRMT pathways could be synergistically targeted for neurological diseases open0.750.002026-04-100neurodegeneration
gap-pubmed-20260410-How do PRMTs regulate neuronal function and what are the specific mechanisms in open0.800.002026-04-100neurodegeneration
gap-pubmed-20260410-What determines tissue-specific NAD+ depletion patterns in brain aging versus otopen0.770.002026-04-100aging-neurobiology
gap-pubmed-20260410-How does CX43 mechanistically regulate PARP1 activity in blood-brain barrier endresolved0.840.002026-04-100vascular-neurobiology
gap-pubmed-20260410-How do Hsp70's allosteric mechanisms and substrate interactions specifically regopen0.760.002026-04-100neurodegeneration
gap-pubmed-20260410-What are the specific molecular mechanisms by which Hsp70 regulates sleep and coopen0.800.002026-04-100neurodegeneration
gap-pubmed-20260410-Why do only 11 of 47 diabetes-associated proteins show strong colocalization supopen0.730.002026-04-100neurodegeneration
gap-pubmed-20260410-What mechanisms link HLA-DRA, AGER, HSPA1A, and HSPA1B to microvascular complicaopen0.790.002026-04-100neurodegeneration
gap-pubmed-20260410-How do detergent-insoluble protein changes relate temporally to clinical AD progopen0.760.002026-04-100neurodegeneration
gap-pubmed-20260410-What mechanisms drive co-accumulation of non-amyloid/tau proteins in detergent-iopen0.800.002026-04-100neurodegeneration
gap-pubmed-20260410-How do newly identified disease-associated proteins functionally contribute to Aresolved0.810.002026-04-100neurodegeneration
gap-pubmed-20260410-Why do AD mouse models fail to recapitulate human proteomic changes beyond amyloopen0.760.002026-04-100neurodegeneration
gap-pubmed-20260410-What mechanisms drive the discrepancies between proteome and transcriptome changopen0.800.002026-04-100neurodegeneration
gap-pubmed-20260410-How do NTN1+ endothelial cells specifically target and communicate with regeneraopen0.800.002026-04-100peripheral-nerve-regeneration
gap-pubmed-20260410-What molecular mechanisms control let-7a-5p downregulation in NTN1+ endothelial open0.790.002026-04-100peripheral-nerve-regeneration
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