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by
  • Ameer Musa Imran Alhseeni1 and
  • Hossein Bevrani1,2,*

Reviewer 1: Anonymous Reviewer 2: Anonymous Reviewer 3: Anonymous

Round 1

Reviewer 1 Report

Comments and Suggestions for Authors

See my attached file

Comments for author File: Comments.pdf

Author Response

Dear reviewer, thank you for your insightful review, which has significantly improved our manuscript. Our responses are in the attached file, and corrections are marked in red in the revised manuscript.

Author Response File: Author Response.pdf

Reviewer 2 Report

Comments and Suggestions for Authors

1) Please correct a typo on P.2, l2 up: perhaps, you mean $\sum \frac{k^y}{k!}$. 2) P.4, l.7 up:  Do you mean $D_{KL}(P||Q)$ or $D_{KL}(Q||P)$? How to justify your choice? 3) P.4, L.14 down: what is $H(x)$- strange notation for a distribution. In general, the presentation on p.4 is not readable and notations are not properly introduced. Say, $X$ is a vector with mean $A$ but $E[X^TMu]$ does not depend on $A$. Please carefully introduce all notations ($n, p \ldots$) and correct typos.

 

Author Response

Dear reviewer, thank you for your insightful review, which has significantly improved our manuscript. Our responses are in the attached file, and corrections are marked in red in the revised manuscript.

Author Response File: Author Response.pdf

Reviewer 3 Report

Comments and Suggestions for Authors

Strengths

  • This research shows why an overdispersed alternative is needed.
  • The Bayesian BRM with prior is useful.
  • Good simulations.
  • Simulations generally favor the G-prior
  • The application shows BRM outperforming Poisson on fit criteria

Needs attention

  • When introducing the G-prior, credit the original source (Zellner) and briefly say why your construction is appropriate for BRM.
  • Specify Metropolis–Hastings tuning: proposal covariance choice, adaptation (if any), and target acceptance range.
  • Include at least a Negative Binomial baseline in simulations and the application; if zeros matter, consider ZINB/zero-inflated Bell in an appendix.
  • Fix minor typos 
  • Keep conclusions scoped to the evidence: “BRM > Poisson here; G-prior > diffuse normal in most settings tested.” Avoid implying superiority over NB without results.

Author Response

Dear reviewer, thank you for your insightful review, which has significantly improved our manuscript. Our responses are in the attached file, and corrections are marked in red in the revised manuscript.

Author Response File: Author Response.pdf

Round 2

Reviewer 1 Report

Comments and Suggestions for Authors

No other comments

Author Response

Thank you for your review; your previous comments and corrections significantly improved our paper.

Reviewer 2 Report

Comments and Suggestions for Authors

1) P.3: still wrong $B_y=e^{-1}\sum\limits_{k=0}^{\infty}\frac{k^y}{k!}$ 2) The set up is wrong: the authors consider the data $D=\{(y_i,X_i)\}$, and the formula (1) should define the conditional distribution $f(y\vert X)$ because $\theta=W_0(e^{X^T\beta})$. 3) p.4: `$\mu(X_i)=h^{-1}(X_i^T\beta)$'. What is $h$? If this is PDF of $H$, it makes no sense, ,etc.

Author Response

Thank you for your review; your comments and corrections significantly improved our paper. 

Please see the attachment.

Author Response File: Author Response.pdf