Suppose from the Hamiltonian I got the Primary constraints $$(\Phi_m,\Phi)$$ And $\dot \Phi_m$ , $\dot \Phi$ leads to secondary constraints $$(\gamma_m,\gamma)$$ respectively. Now if the commutation of $\Phi_m$ with $\gamma_m$ is non zero (i.e they both are second class) does it terminate the commutation chain there?
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OP wrote(v1):
No, not necessarily. The rest of the $4\times 4$ matrix $\{\chi^i,\chi^j\}$ of the $4$ constraints still contains unspecified entries. Finally, don't forget to check if there are tertiary constraints, quaternary constraints, etc. |
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To follow the process of deducation, \dot{\kappa}={\kappa,H_T}, to find whether there are some other new constraints. If there are no any new constraints, you can be taken as you are at the end. |
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