2104.14666
The effects of degree distributions in random networks of Type-I neurons
Carlo R. Laing
incompletemedium confidence
- Category
- Not specified
- Journal tier
- Specialist/Solid
- Processed
- Sep 28, 2025, 12:56 AM
- arXiv Links
- Abstract ↗PDF ↗
Audit review
The paper correctly derives the OA degree-based mean-field equations and numerically demonstrates the main qualitative effects (independence from out-degree for synaptic coupling; inhibitory oscillations suppressed by in-degree broadening; excitatory bistable window narrows; gap-junction thresholds shift). However, these effects are not proven analytically. The model’s solution reproduces the OA reduction and offers plausible analytic sketches (e.g., dephasing argument for inhibitory Hopf loss; concavity-based slope reduction for excitatory bistability; rank-one coupling view for gap junctions), but relies on unproven regularity assumptions and contains minor typographical slips. Thus, both paper and model provide valuable, largely consistent insights, yet neither delivers a complete, rigorous proof of the global claims.
Referee report (LaTeX)
\textbf{Recommendation:} minor revisions
\textbf{Journal Tier:} specialist/solid
\textbf{Justification:}
The paper offers a clear OA-based derivation of degree-structured mean-field equations and systematically explores how degree heterogeneity shapes macroscopic dynamics under synaptic and gap-junction coupling. The main qualitative findings are robust and useful for the field. Minor clarifications (assumption statements, parameter labels near figures) would polish the presentation. A fully analytic account of the numerical bifurcations is beyond scope but could be noted explicitly.