Comments on your prop, in 30 minutes flat! 1. Now that the Shimura-Taniyama-Weil conjecture has been proved, ^^^^^^ Including Weil is "politically risky"! What if Serge Lang is deciding on whether or not you get an NSF? Maybe you are including Weil because you're in France right now. The NSF is in the US. 2. A lot of progress has been made on ^^^^^^ Replace by "Much progress" By the way, nice intro paragraph! 3. "et al.; but a" "but" is a correlative conjunction so the semicolon can be replaced by a comma. 4. Your definition of Tamagawa number is a little misleading, because you only define | G | to mean "order" for finite groups. The component group is a group SCHEME and the order of that group is #Phi_p(A)(Fbar_p). 5. "It is known that $L_A(1)/\Omega_A$ is a rational number~\cite{shimura:onperiods}" Where, EXACTLY, in that paper does he deduce that result? He seems to deduce lots of related things, e.g., in his Section 2, but I don't see your assertion. It might be better to say that results of Shimura imply that L/Om in Q, unless I'm missing something. Skipping to sections 1.3 and 1.5: 6. I don't see Te/I_fe = Phi_{A_f}(e), i.e., why ker (Te ----> Phi_{A_f}(Te)) is exactly I_fe. It's probably true, but I don't see it immediately. 7. "Is it a good idea to state such results as a theorem in a research proposal?}" I think that it is. 8. "... we prove that" I usually write something more like either "the applicant and Agashe proved that"... "Agashe and I proved that"... 9. "As~$c_\infty$ is known to be a power of~$2$, this is strong evidence towards formula~(\ref{af2})." HUH!? We only know that c_inf is a 2-power in case the level is SQUARE-FREE!!!! 10. "and the latter lattice index is itself the order of a module over $\T / I_f$;" HUH!? Which module? A fractional ideal maybe. 11. "...to check with of the above two possibilities..." ^^^^^^ It's OK to put my name there. Yes, you get Hecke operators from the Method of Graphs. It would be interesting to investigate whether your module (see 10 above) is principal or not. Computing the T-module structure of Sha might be possible *when Sha is visible* (new idea!). 12. > \subsubsection{Is $\Mid \Sha_{A_f} \miD$ a perfect square?} a) "Later B.~Poonen communicated to us an example where this gcd is not one. However in that example, the endomorphism ring of the abelian variety was~$\Z$, whereas Shimura quotients have large endomorphism rings." I think I found a quotient of J_1(43*7^2) with non-Z endomorphism ring where Bjorn proved that the gcd is divisible by 3. b) I have found an example of a quotient of J_1(43*7^2) for which Sha is finite and BSD ==> #Sha[3] = 3, hence oddpart(#Sha) is not square. c) I do not conjecture that oddpart(#Sha(A_f)) is square for optimal quotients of J_0(N) of rank 0, in general, even though I've not found a counterexample yet. However, it's still possible that oddpart() is square. d) See my paper http://modular.fas.harvard.edu/papers/bigsha/ 13."Our strategies mentioned above might show that the conjectural order of $\Sha_{J_e}$ as predicted by the BSD formula" It would be more accurate to say "might show that the BSD conjecture about rank implies the conjectural order of $\Sha_{J_e}$ is as predicted by the BSD formula." Skipping to 1.5: 14. "It is known that that $c_A$ is an" ^^^^^^^^^^^ 15. "One still does not have a direct generalization of the result of~\cite{abbes-ullmo} which would say..." You are specifically referring to the prime p=2 here. Say so. OK. Overall, it looks good. If you keep working at polishing your research proposal, I bet you'll get a grant.