HIF-1 plays a dual regulatory role in hippocampal neuronal PANoptosis in Alzheimer's disease via the HK2/VDAC1/NLRP3 axis and RIPK3 signaling
- Design
- Animal study · Unknown outcome
- Match to healthy normal-weight adults aged 55–75
- Not human evidence[Auto] Non-human (animal or cellular) evidence; no direct inference to any human population.
- Could weight loss explain it?
- Unknown[Auto] Non-human study; weight-loss mediation not assessable.
- Study tier
- Study tier 4[Auto] Preclinical evidence; not clinical evidence for any human population.
- Assessment
- Version 1 · automatic, not yet reviewed by a person · Sep 13, 2026
Study facts come from the paper. Population match, weight-loss explanation and study tier are our judgments, made against the reference group of healthy normal-weight adults aged 55–75.
[Auto, unreviewed; last sentences of abstract] Finally, we uncovered that semaglutide, a glucagon-like peptide-1 receptor agonist (GLP-1RA), mitigates hippocampal neuronal PANoptosis by reprograming the double-eged sword effect of HIF-1 mediated by GLP-1R-AMPK signaling pathway, highlighting its potential as a therapeutic avenue for AD. These findings uncover a previously unrecognized role of PANoptosis in AD and provide new insights into the HIF-1-mediated regulatory mechanisms, offering a promising target for therapeutic intervention.
What the study reported
- Drugs
- Semaglutide
- Primary outcome
- Not extracted
- Effect
- Not extracted
- 95% confidence interval
- Not extracted
- Follow-up
- Not stated
- Adverse events
- Not extracted
- Limitations
- Auto-classified from abstract only; effect estimates, adverse events and limitations not extracted. Requires manual review.
Who was studied
- Baseline condition
- Alzheimer's disease / MCI
Study quality details
- Study design
- Preclinical (animal)
- Sample size
- not extracted
- Randomization
- no
- Blinding
- not stated
- Comparator
- not stated
- Follow up duration
- not stated
- Outcome type
- unknown
- Replication
- not assessed (auto)
- Consistency with other evidence
- not assessed (auto)
- Population applicability
- VERY_INDIRECT
- Statistical precision
- not extracted
- Risk of bias
- not assessed (auto)
- Funding conflicts
- unclear
- Peer review status
- yes
Funding and conflicts
- Funding
- not reported in abstract
- Industry funded
- Unclear
- Manufacturer
- None identified
- Sponsor role
- not reported in abstract
- Author conflicts
- Declaration of Competing Interest The authors declare no competing interests.
- Independent replication
- unknown
Funding is shown on every study and never used to score it.
The source, as retrieved
Abstract
Extensive neuronal loss in brain regions critical for learning and memory is a hallmark of Alzheimer's disease (AD). PANoptosis, a newly characterized form of programmed cell death, integrates the key features of pyroptosis, apoptosis and necroptosis, and explains the molecular crosstalk among these pathways. However, whether PANoptosis is a new manner for hippocampal neuron death in AD, and the involved regulatory mechanisms remains largely unknown. Here, we demonstrate that PANoptosis is a crucial mechanism driving hippocampal neuronal loss in an AD mouse model. Moreover, we uncovered that the HIF-1 signaling pathway exerts a double-edged sword effect on hippocampal neuronal PANoptosis by activating the HK2/VDAC1/NLRP3 axis while concurrently suppressing RIPK3 signal. This observation may offer a partial explanation for the double-edged sword role of HIF-1 as both a neuroprotective and neurotoxic factor in AD. Finally, we uncovered that semaglutide, a glucagon-like peptide-1 receptor agonist (GLP-1RA), mitigates hippocampal neuronal PANoptosis by reprograming the double-eged sword effect of HIF-1 mediated by GLP-1R-AMPK signaling pathway, highlighting its potential as a therapeutic avenue for AD. These findings uncover a previously unrecognized role of PANoptosis in AD and provide new insights into the HIF-1-mediated regulatory mechanisms, offering a promising target for therapeutic intervention.
Where this record came from
| Source | Retrieved | Identifier |
|---|---|---|
| pubmed | Sep 13, 2026 | 42702341 first ingestion |