16 research outputs found

    Computer code doing the calculation of the differential cross section for 208Pb(p,p') via an isolated isobaric analog resonance in 209Bi

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    Example of a computer code based on IDL [1] to calculate the differential cross section of a state described by 1p1h configurations excited by 208Pb(p,p') via an isolated isobaric analog resonance in 209Bi. The formula is given by Eq. (4) in [2] and uses a table of the geometrical coefficients calculated for all orbits 50 .le. N .le. 184 shown in [3]

    Wave functions calculated by T. T. S. Kuo and G. E. Brown in 1968 using an effective nucleon-nucleon interaction.

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    Excitation energies for 1p1h states in 208Pb with (a) particles from 82 .le. Z .le. 126 and holes from 50 .le. Z .le. 82 and (b) particles from 126 .le. N .le. 184 and holes from 82 .le. N .le. 126 for spins from 0- to 9- and 2+ to 5+ (two different sets for 1-)

    Wave functions calculated in the shell model with the M3Y interaction performed by K. H. Maier in 2002 / 2007.

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    Complete set of the excitation energies and amplitudes for 1p1h states in 208Pb with (a) particles from 82 .le. Z .le. 126 and holes from 50 .le. Z .le. 82 and (b) particles from 126 .le. N .le. 184 and from 82 .le. N .le. 126 calculated with the OXBASH code

    Excitation energies calculated in the schematic shell model without residual interaction and including the surface delta interaction.

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    Complete set of the SDI excitation energies for 1p1h states in 208Pb with (a) particles from 82 .le. Z .le. 126 and holes from 50 .le. Z .le. 82 and (b) particles from 126 .le. N .le. 184 and holes from 82 .le. N .le. 126

    Wave functions calculated in the shell model with the M3Y interaction performed by K. H. Maier in 2002 / 2007.

    No full text
    Complete set of the excitation energies and amplitudes for 1p1h states in 208Pb with (a) particles from 82 .le. Z .le. 126 and holes from 50 .le. Z .le. 82 and (b) particles from 126 .le. N .le. 184 and from 82 .le. N .le. 126 calculated with the OXBASH code

    FORTRAN code describing the geometry in the inelastic proton scattering via an isobaric analog resonance

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    FORTRAN functions calculating 3j, 6j, 9j Wigner-symbols and Racah- and Z-coefficients are given by SS3J, SS6J, SS9J, RAC, ZQ in libCollectionExtract.for The code starts with FAK3NJ calculating all faculty numbers !N up to N=500 The geometrical factor needed to describe the inelastic proton scattering via and isobaric analog resonance are provided by TRIX The FORTRAN code phIK_WZbarAdapted.for does the calculation. The complete table of all needed geometrical factors for 208Pb(p,pÄ) via any IAR in 209Bi is provided in phIK_WZbar.table The definition of ZQ is shown in ZQ-definition.pd

    Derivation of formulas for (p,p') via an isobaric analog resonance by H. L. Harney (1967-1969)

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    Elementary derivation of cross section formulas for (p,p') via an isobaric analog resonance (IAR) (a) german (b) englis

    Completion rates by progress stage (based on completing the previous stage).

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    Completion rates by progress stage (based on completing the previous stage).</p

    Effect of KSX participation on MOOC final exam results.

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    Effect of KSX participation on MOOC final exam results.</p
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