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Exact(3)
Finally, repeating the above arguments with,, replaced by,, it can be shown that,, where.
Furthermore, repeating the above arguments with few modifications on the domain ([0,b]), we can prove (3.37).
The proof when is eventually negative is analogous by repeating the above arguments on the interval instead of.
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Repeating the above argument, we find that, for (3.15).
Repeating the above argument leads to a new estimate (x(g(t))/x t)> ec)^{2}), for t large enough.
By repeating the above argument (replacing S by T) one can easily verified that d ( x 2 n + 2, x 2 n + 1 ) < ϑ ( H ( T x 2 n, S x 2 n + 1 ), M T, S ( x 2 n, x 2 n + 1 ) ) M T, S ( x 2 n, x 2 n + 1 ).
end{aligned} We can repeat the above arguments to arrive at (19) with (W_{2}=0) and (W_{1}=frac{2Vert CAVert }{lambda-Vert AVert }).
Therefore we can repeat the above argument and show that Lemma 2.2 holds.
We can then repeat the above argument but at the penalty of increasing the exponent on p from 3 to 4. Proof of Part (ii): Let m = ⌊n/3⌋, and let T1 be any tree in R(m).
When σ ∗ < λ, repeating the above bootstrap arguments by making use of (16) and (19) in place of (14) and (15), one can find that (16) and (19) are fulfilled with σ ∗ replaced by λ.
(3.24) and (3.26) are obtained by repeating the above bootstrap argument and the Schauder estimate.
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Justyna Jupowicz-Kozak
CEO of Professional Science Editing for Scientists @ prosciediting.com