Математика: различия между версиями
Serebr (обсуждение | вклад) Нет описания правки |
м →Конец математики: -__- |
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\sqrt[\mathfrak{bl}]{ | \sqrt[\mathfrak{bl}]{ | ||
\frac{\lim\limits_{N\to+\infty}\Bigg(\int\limits_{\prod\limits_{k=1}^N \sin^2\frac{\pi (k+1)^2}{N+2}}^{\sum\limits_{k=1}^N k^{\frac{5N^N}{4}}} \frac{\sqrt[\sum\limits_{\alpha_0 \in \mathbb{I}} sin\pi\alpha_{0} ]{ \frac {\sqrt[\#\{\frac{\varphi}{N}|\frac{\varphi}{N}\leq\varphi^2\}]{\lim\limits_{n\to-\infty}\sup\limits_{k\leq n}\Pr_1(\ker\eta_{k*x\circ^2})+\sin \mathbb{N}x-x^3N^7\sin^N(x+(\Lambda\Delta^2\varphi)^{19})}} {1+x^2*\mathbf{bool}(\alpha\equiv\!\equiv\!\equiv\!\equiv\beta)+|\cos\pi Nx|}}}{\sum\limits_{k=1}^2\frac{1}{4\pi^2\kappa^2} \int_0^\infty \frac{\sin(\kappa R)}{\kappa R} \frac{\partial}{\partial R}\left[R^2\frac{\partial D_n(R)}{\partial R}\right]\,dR+\sum_{k=0}^\infty \frac{(-1)^k\left(\frac{z}{2}\right)^{2k+p}}{k!\Gamma(k+p+1)}}\partial x\Bigg)+ | \frac{\lim\limits_{N\to+\infty}\Bigg(\int\limits_{\prod\limits_{k=1}^N \sin^2\frac{\pi (k+1)^2}{N+2}}^{\sum\limits_{k=1}^N k^{\frac{5N^N}{4}}} \frac{\sqrt[\sum\limits_{\alpha_0 \in \mathbb{I}} sin\pi\alpha_{0} ]{ \frac {\sqrt[\#\{\frac{\varphi}{N}|\frac{\varphi}{N}\leq\varphi^2\}]{\lim\limits_{n\to-\infty}\sup\limits_{k\leq n}\Pr_1(\ker\eta_{k*x\circ^2})+\sin \mathbb{N}x-x^3N^7\sin^N(x+(\Lambda\Delta^2\varphi)^{19})}} {1+x^2*\mathbf{bool}(\alpha\equiv\!\equiv\!\equiv\!\equiv\beta)+|\cos\pi Nx|}}}{\sum\limits_{k=1}^2\frac{1}{4\pi^2\kappa^2} \int_0^\infty \frac{\sin(\kappa R)}{\kappa R} \frac{\partial}{\partial R}\left[R^2\frac{\partial D_n(R)}{\partial R}\right]\,dR+\sum_{k=0}^\infty \frac{(-1)^k\left(\frac{z}{2}\right)^{2k+p}}{k!\Gamma(k+p+1)}}\partial x\Bigg)+ | ||
\begin{vmatrix} \frac{613}{066} & 42 \\ \sin\zeta & |\mathrm{fhtg}\mu| \end{vmatrix}} | \begin{vmatrix} \frac{613}{066} & 42 \\ \sin\zeta & |\mathrm{fhtg}\mu| \end{vmatrix}} | ||
{\frac{666}{666}-\varepsilon+\sqrt[\frac{3}{2}]{\xi^2 | {\frac{666}{666}-\varepsilon+\sqrt[\frac{3}{2}]{\xi^2 | ||
(\bigcup_{\mathbf{B}}\in\mathfrak{B}_{\mathbb{R,E}}\varphi(B,0)*E')*\sqrt{\frac{\varphi_{\mathbb{C}}(\{F\in\Omega_{n,2n}^n:\textrm{diam}F\le 2\textrm{diam}\ | (\bigcup_{\mathbf{B}}\in\mathfrak{B}_{\mathbb{R,E}}\varphi(B,0)*E')*\sqrt{\frac{\varphi_{\mathbb{C}}(\{F\in\Omega_{n,2n}^n:\textrm{diam}F\le 2\textrm{diam}\tilde{F}\},0)}{\#(\bigcap_{i\in | ||
I}\textrm{pr}_i(\varphi_{\mathbb{C}}(\textrm{int}(\overline{\Re(\underline{\frac{1}{n}*E'})} | I}\textrm{pr}_i(\varphi_{\mathbb{C}}(\textrm{int}(\overline{\Re(\underline{\frac{1}{n}*E'})} | ||
\times\overline{\Im(\underline{\frac{1}{n}*E'})}),0))}}+\begin{matrix} \underbrace{f(\xi)\left[g(|x+\xi|,\;y)+\cdots+g(|x-\xi|,\;y)\right] } \\ \sum_{k=0}^N {P_k}{N! \over k!(N - k)!}{u^k}(1 - u)^{N-k} \end{matrix}}}+1}\xrightarrow[t \to 1]{} 0 | \times\overline{\Im(\underline{\frac{1}{n}*E'})}),0))}}+\begin{matrix} \underbrace{f(\xi)\left[g(|x+\xi|,\;y)+\cdots+g(|x-\xi|,\;y)\right] } \\ \sum_{k=0}^N {P_k}{N! \over k!(N - k)!}{u^k}(1 - u)^{N-k} \end{matrix}}}+1}\xrightarrow[t \to 1]{} 0 | ||
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