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Starting from state-by-state calculations of exclusive rates of the ordinarymuon capture (OMC), we evaluated total muon-capture rates for a set of light-and medium-weight nuclear isotopes. We employed a version of the proton-neutronquasi-particle random phase approximation (pn-QRPA, for short) which uses asrealistic nuclear forces the Bonn C-D one boson exchange potential. Specialattention was paid on the percentage contribution to the total muon-capturerate of specific low-spin multipolarities resulting by summing over thecorresponding multipole transitions. The nuclear method used offers thepossibility of estimating separately the individual contributions to the totaland partial rates of the polar-vector and axial-vector components of the weakinteraction Hamiltonian for each accessible final state of the daughternucleus. One of our main goals is to provide a reliable description of thecharge changing transitions matrix elements entering the description of othersimilar semileptonic nuclear processes like the charged-currentneutrino-nucleus reactions, the electron capture on nuclei, the single\b{eta}-decay mode, etc., which play important role in currently interestinglaboratory and astrophysical applications like the neutrino-detection throughlepton- nucleus interaction probes, and neutrino-nucleosynthesis. Such resultscan be also be useful in various ongoing muon-capture experiments at PSI,Fermilab, JPARC and RCNP.

Detailed description of exclusive muon capture rates using realistic two-body forces