2209.12143
Comparative analysis of carbon cycle models via kinetic representations
Noel T. Fortun, Eduardo R. Mendoza
correctmedium confidence
- Category
- math.DS
- Journal tier
- Specialist/Solid
- Processed
- Sep 28, 2025, 12:56 AM
- arXiv Links
- Abstract ↗PDF ↗
Audit review
The paper proves that for a conservative, closed network of maximal rank, ACR in some species implies co-monostationarity (Proposition 4.6). The proof argument is that two equilibria in the same co-stoichiometric class would differ by a nonzero vector in S⊥, yet ACR forces a zero in the ACR species coordinate—impossible when S⊥ is one-dimensional and spanned by a strictly positive conservation vector. The candidate solution presents the same reasoning with more explicit steps (showing S⊥ = span{v ≫ 0} and using y^1 − y^2 = αv ⇒ the i-th coordinate can’t vanish), reaching the same conclusion. This aligns directly with the paper’s statement and proof sketch of Proposition 4.6 and the definition of co-monostationarity via co-stoichiometric classes x + S⊥. See the paper’s Definition 4.5 and Proposition 4.6 for the precise statements and context: .
Referee report (LaTeX)
\textbf{Recommendation:} minor revisions \textbf{Journal Tier:} specialist/solid \textbf{Justification:} The result is correct and nicely tied to the paper’s framework on conservative, closed, maximal-rank systems. The proof is succinct and sound; adding an explicit note that conservativity yields a strictly positive generator of the one-dimensional S⊥ would improve readability. The contribution is incremental but clean and supports the paper’s comparative analyses.