Abstract:The separation of variables in the total nuclear Hamiltonian neglecting the rotation of the nucleus as a whole (but not the "core rotation") is carried out. By frame transformation the operator of the interaction between rotational and, intrinsic motions is derived for axial and non-axial nuclei. By using this operator the rotational spectra of deformed nuclei are examined.
“…This question was briefly discussed in our paper [3], but there we did not pay sufficient attention to the problem of the exact description of the rotational bands with high values of the rotational angular momentum (Irot). This question was briefly discussed in our paper [3], but there we did not pay sufficient attention to the problem of the exact description of the rotational bands with high values of the rotational angular momentum (Irot).…”
Section: To Be Referred To In What Follows As Spm)mentioning
confidence: 98%
“…Certainly all the nuclear states, the collective states including, are the states of a system of strongly interacting particles, the quantum mechanical distribution of density being stationary in the stationary states. [3,71). What is the most economical and simple (but a t the same time adequate) way of describing the nuclear states?…”
Section: Scheme Of Separation Of Variables In Spmmentioning
confidence: 99%
“…3 are utilized, the "isospin pairing" corresponding to the np correlations is much stronger than the "spin pairing" corresponding to the nn and pp correlations. 3 are utilized, the "isospin pairing" corresponding to the np correlations is much stronger than the "spin pairing" corresponding to the nn and pp correlations.…”
Section: Configurational Excitationsmentioning
confidence: 99%
“…where J,, = MAR^ is the moment of inertia of a rigid sphere possessing the nucleus mass and radius; b1,?, 3 are the numbers which are determined by the nuclear shape (the subscripts 1, 2, 3 in this case have nothing to do with the notations of the axes v = 1, 2, 3). Assuming that a nucleus has the shape of a prolate ellipsoid of revolution, we have [24]:…”
Section: Rotation Of Nuclei and Postulate Of Non-homogeneity Of Motionmentioning
The general structure of the semiphenomenological model as a unified nuclear model describing the rotational, charge oscillation and configurational states is considered. The basic HAYILTONIAN of the model including the average field and short -range "residual" intcractions is given.
“…This question was briefly discussed in our paper [3], but there we did not pay sufficient attention to the problem of the exact description of the rotational bands with high values of the rotational angular momentum (Irot). This question was briefly discussed in our paper [3], but there we did not pay sufficient attention to the problem of the exact description of the rotational bands with high values of the rotational angular momentum (Irot).…”
Section: To Be Referred To In What Follows As Spm)mentioning
confidence: 98%
“…Certainly all the nuclear states, the collective states including, are the states of a system of strongly interacting particles, the quantum mechanical distribution of density being stationary in the stationary states. [3,71). What is the most economical and simple (but a t the same time adequate) way of describing the nuclear states?…”
Section: Scheme Of Separation Of Variables In Spmmentioning
confidence: 99%
“…3 are utilized, the "isospin pairing" corresponding to the np correlations is much stronger than the "spin pairing" corresponding to the nn and pp correlations. 3 are utilized, the "isospin pairing" corresponding to the np correlations is much stronger than the "spin pairing" corresponding to the nn and pp correlations.…”
Section: Configurational Excitationsmentioning
confidence: 99%
“…where J,, = MAR^ is the moment of inertia of a rigid sphere possessing the nucleus mass and radius; b1,?, 3 are the numbers which are determined by the nuclear shape (the subscripts 1, 2, 3 in this case have nothing to do with the notations of the axes v = 1, 2, 3). Assuming that a nucleus has the shape of a prolate ellipsoid of revolution, we have [24]:…”
Section: Rotation Of Nuclei and Postulate Of Non-homogeneity Of Motionmentioning
The general structure of the semiphenomenological model as a unified nuclear model describing the rotational, charge oscillation and configurational states is considered. The basic HAYILTONIAN of the model including the average field and short -range "residual" intcractions is given.
“…I n the present paper the rotational Hamiltonian of the nucleus (H,,t) is obtained and investigated. The problem of the interaction between the rotation and the intrinsic motion in our approach (the operator H (rotlin)) is examined in the next paper [6] (further on referred t o as 11).…”
Collective motion in the nucleus is defined as change of the density distribution of nuclear matter in time. On the basis of this definition the Hamiltonian of nuclear rotation is obtained with moments of inertia corresponding satisfactorily to experimental data. The theory is easily applied t o nuclei with non-axial equilibrium shape. For the latter the parameters of non-axiality are considerably smaller than in the DAVYDOV-FILIPPOV model.
The low lying states with negative parity in deformed even-even nuclei are considered as collective oscillations of the nuclear charge inside the nuclear matter. These oscillations are fully defined by the difference between charge and mass distribution in the nucleus, mainly by the difference between charge and mass density deformation.
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