Line 65: |
Line 65: |
| | | |
| <math> | | <math> |
− | C=\frac{1}{\sqrt{2}} \left[ C^{a,b} + (-1)^L C^{b,a} \right] | + | C(L)=\frac{1}{\sqrt{2}} \left[ C^{a,b} + (-1)^L C^{b,a} \right] |
| </math> | | </math> |
| | | |
Line 77: |
Line 77: |
| \left[ \sqrt{\frac{2L_X+1}{2J_X+1}} | | \left[ \sqrt{\frac{2L_X+1}{2J_X+1}} |
| \left(\begin{array}{cc|c} | | \left(\begin{array}{cc|c} |
− | L_X & 1 & J \\ | + | L_X & 1 & J_X \\ |
| 0 & \lambda_{b_1} & \lambda_{b_1} | | 0 & \lambda_{b_1} & \lambda_{b_1} |
| \end{array}\right) | | \end{array}\right) |
Line 132: |
Line 132: |
| <math> | | <math> |
| A^{J_X}=\sum_{\lambda_{b_1},\lambda_\omega,\lambda_\rho} | | A^{J_X}=\sum_{\lambda_{b_1},\lambda_\omega,\lambda_\rho} |
− | \langle \Omega_X 0 \lambda_{b_1} | U | J_X m_X \rangle C_X k^{L_X} | + | \langle \Omega_X 0 \lambda_{b_1} | U | J_X m_X \rangle C_X(L_X) k^{L_X} |
− | \langle \Omega_{b_1} 0 \lambda_\omega | U | 1 , m_{b_1}=\lambda_{b_1} \rangle C_{b_1} q^{L_{b_1}} | + | \langle \Omega_{b_1} 0 \lambda_\omega | U | 1 , m_{b_1}=\lambda_{b_1} \rangle C_{b_1}(L_{b_1}) q^{L_{b_1}} |
− | \langle \Omega_\omega 0 \lambda_\rho | U | 1 , m_\omega=\lambda_\omega \rangle C_\omega u^{L_\omega} | + | \langle \Omega_\omega 0 \lambda_\rho | U | 1 , m_\omega=\lambda_\omega \rangle C_\omega(L_\omega) u^{L_\omega} |
− | \langle \Omega_\rho 0 \lambda_\rho | U | J_\rho , m_\rho=\lambda_\rho \rangle C_\rho v^{L_\rho} | + | \langle \Omega_\rho 0 \lambda_\rho | U | J_\rho , m_\rho=\lambda_\rho \rangle C_\rho(L_\rho) v^{L_\rho} |
| </math> | | </math> |
| | | |