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$K$%
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M_{2} \ddot{X}_{2} & = & A_{2} X_{0} & + & A_{1} X_{1} & + & A_{0} X_{2} & + & A_{1} X_{3} & + & A_{2} X_{4}  \nonumber  \\
\vdots &  & \vdots  & & \vdots  & & \vdots  & & \vdots  & &  \vdots \\
M_{i} \ddot{X}_{i} & = & A_{2} X_{i-2} & + & A_{1} X_{i-1} & + & A_{0} X_{i} & + & A_{1} X_{i+1} & + & A_{2} X_{i+2}   \\
\vdots &  & \vdots   & & \vdots & & \vdots  & & \vdots  & & \vdots
\\\nonumber M_{N} X_{N} & = & A_{2} X_{N-2} & + & A_{2} X_{N-1} &
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$T_{m}$%
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{\newpage\clearpage
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$T_{M}$%
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$I+2, \ I+1,\  I, \ I-1$%
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$ T $%
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$-\mbox{{\Large e}}^\alpha$%
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$180^o$%
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$2,4,6,... ..i+2.
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$m \ M$%
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$\varepsilon$%
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$\displaystyle \mu^{4} - \mu^{3} [K^{2} + \varepsilon (\rho + 1 / \rho) + 4(K + 1)] + \mu^{2} [4(K + 1)^{2} - 2K^{2} + 2 +$%
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$m$%
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{\newpage\clearpage
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$M$%
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$F$%
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$A_{1}$%
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$X$%
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$Z$%
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$Y$%
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$C_{1}$%
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\begin{displaymath}
C = \frac{2[\rho \varepsilon + (K + 2)] \pm \sqrt{4[(\rho
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(K^{2} + 2K + 2)}}{8}
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$-4 (A_{1} + A_{2}) \leq \lambda \leq 0$%
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$\displaystyle \mu^{4} - \mu^{3} [K^{2} + 8 (\rho + 1/\rho) + 4(K + 1)] +
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$\displaystyle + 2(K + 1) \varepsilon (\rho
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$\varepsilon = \lambda
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\begin{eqnarray*}
a + b  & = &  K^{2} + \varepsilon(\rho + 1 /\rho) + 4 (K + 1)\\
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$\rho = \rho + \frac{1}{\rho}$%
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\begin{eqnarray*}
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$\kappa, \rho, \varepsilon$%
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$2C = \mu + \frac{1}{\mu} \ \ \ \ \ \ \ \
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$\varepsilon, \rho$%
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$\kappa$%
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4C^{2} - 2C(\rho \varepsilon + K^{2} + 4K + 4) + \varepsilon^{2} +
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C = \frac{2 (\rho \varepsilon + (K + 2)^{2} \pm \sqrt{4[\rho
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$\mbox{cos} \ h
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$> 1$%
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$< - 1$%
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$\varphi > 1$%
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$\varphi < 1$%
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$-1 \leq C
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$seno$%
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$coseno$%
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$-2.0 \leq C
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$180^{\circ}$%
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$e^{\alpha}$%
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\end{document}
