- M^{(0)}_6 (\theta) = 0
&& M^{(0)}_7 (\theta) = M^{(0)}_8 (\theta) = \frac{i\pi}{2k}{\operatorname{csch}}\frac \theta 2
\label{s222func}
\\\no
\\
\no
&  L^{(0)}_1 (\theta) = - L^{(0)}_3 (\theta) = \frac{i\pi}k {\operatorname{csch}}\theta 
&& L^{(0)}_2 (\theta) = - L^{(0)}_4 (\theta) = - \frac{i\pi}k \coth \theta
\\
\no
&  L^{(0)}_5 (\theta) = - L^{(0)}_7 (\theta) = 0
&&  L^{(0)}_6 (\theta) = - L^{(0)}_8 (\theta) = 0
\\
&  L^{(0)}_9 (\theta) = L^{(0)}_{10} (\theta) = -\frac{i\pi}{2k} {\operatorname{sech}}\frac \theta 2
&&  L^{(0)}_{11} (\theta) = L^{(0)}_{12} (\theta) = \frac{i\pi}{2k}{\operatorname{csch}}\frac \theta 2
\label{s233func}
\\\no
\\
\no
&  K^{(0)}_1 (\theta) = K^{(0)}_3 (\theta) = -\frac{i\pi}{2k}\tanh\frac\theta 2
&& K^{(0)}_2 (\theta) = K^{(0)}_4 (\theta) = \frac{i\pi}k\coth\theta
\\
\no
&  K^{(0)}_5 (\theta) = K^{(0)}_6 (\theta) = -\frac{i\pi}{2k}{\operatorname{sech}}\frac\theta 2
&& K^{(0)}_7 (\theta) = K^{(0)}_8 (\theta) = \frac{i\pi}{2k}{\operatorname{csch}}\frac\theta 2
\\
&  K^{(0)}_9 (\theta) = K^{(0)}_{10} (\theta) = 0
&&
\label{s255func}\end{aligned}$$

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