Figures for “Interactions of kaons, pions, and…”


Increase Fig.1 FIG. l. Integrated cross sections for the NA interaction in the region of laboratory kinetic energies of the nucleon below 100 MeV: a) sr(N 12C); b) stot(n 12C); c) stot(N4He); d) sr (Nd). Here and in Fig. 2 the points · are proton experimental data, o are neutron data, the solid and dashed curves are calculations for p 12C scattering, and the dot-dash curve is for n 12C.

Increase Fig.2 FIG.2. Integrated cross sections for the NA interaction in the region of laboratory kinetic energies of the nucleon below 100 MeV: a) stot(N 12C); b) sr(N 12C); c) s (N 4He) (the points o are experimental results for s r the upper pair of curves is the calculation for the total cross sections stot, and the lower pair is for sr ); d) stot(Nd). The hatched regions are the calculations of Ref. l.

Increase Fig.3. FIG. 3. Differential cross sections for elastic p 12C scattering in the region of laboratory kinetic energies of the nucleon below 100 MeV. Here and in Figs. 4-6 the curves are the calculations, and the points are experimental data; the numbers near the curves are the values of Tplab in MeV; an asterisk indicates that we have given the angular dependence in the laboratory system, and in other cases in the p 12C c.m.s.

Increase Fig.4FIG. 4. Differential cross sections for elastic p12C scattering in the region of laboratory kinetic energies of the nucleon above 100 MeV.

Increase Fig.5FIG. 5. Differential cross sections for elastic pd, 4He, and 12C scattering (from top to bottom) at Tplab = 50 MeV.

Increase Fig.6FIG. 6. Comparison of the differential cross sections for elastic p 12C scattering in the region of laboratory kinetic energies of the nucleon above 100 MeV, calculated using the kinematically corrected impulse approximation (solid curves) and the more complex microscopic potential in Ref. 4 (dashed curves).

Increase Fig.7FIG. 7. Integrated cross sections for the nA interaction in the region of laboratory kinetic energies of the pion below 300 MeV: a) s (p- 12C); b) s (p+ 12C); c) [stot(p-d)+stot(p+d)]/2; d) stot(p-d)-stot(p+d). The points · are experimental data for stot and o are data for sr. The dot-dash curves are the calculations including the corrections of Sec. 4, the upper solid and dashed curves are for stot and the lower ones are for sr .

Increase Fig.8FIG. 8. Differential cross sections for elastic p-d scattering. Here and in Figs. 9 and 10, the notation is the same as in Figs. 3 and 7.

Increase Fig.9FIG. 9. Differential cross sections for elastic p+ 12C scattering.

Increase Fig.10FIG. 10. Differential cross sections for elastic p- 12C scattering.

Increase Fig.11FIG. 11. Integrated cross sections for the K+ A interaction in the region of laboratory kinetic energies of the kaon below 1 GeV. (a) s (K+ 12C). Experimental data for stot: black squares - from Ref. 82; white squares - from Ref. 83; x- from Ref. 43; for sr : o - from Ref. 83. The upper solid and dashed curves are for stot, and the lower ones for sr. (b) stot(K+d) (upper) and sel (K+ d) (lower); the solid curves are the calculations with the Gartenhaus-Moravcsik form factor, and the dot-dash curve is with the Hulthen form factor for d. The points · are experimental data from Ref. 85.

Increase Fig.12FIG. 12. Total cross sections for the K+ 12C and K+ d interactions and the quantity R=stot(K+ 12C))/6stot(K+d) in the region of initial kaon laboratory momenta 350-950 MeV/c [(a)-(c), respectively]. For (b) the notation is the same as in Fig. 11a; for (c) it is the same as in Fig. 11b, the white squares are experimental data, and the dot-dash curve is obtained using a deuteron density in the Gaussian form. The curves in (a) are obtained using the solid curve in (b) and the corresponding curves in (c); the dashed curve in (a) is obtained from the dashed curve in (b) and the solid curve in (c). The points · in (a) are the experimental data of Ref. 84, and the black squares are the data of Ref. 82.

Increase Fig.13FIG. 13. Differential cross sections for elastic K+ d scattering at initial kaon laboratory momenta 0.6 and 0.9 GeV/c (numbers near the curves). The curves are the calculations (as in Fig. 12c); experimental data: · - Ref. 80; o - Ref. 62; black squares - Ref. 81. The dashed curve in the uppeer graph at momentum 0.64 GeV/c and the solid curve at 0.587 GeV/c demonstrate the change in the calculation with energy for the extreme values of the momenta at which the experimental data have been taken.

Increase Fig.14FIG. 14. Differential cross sections for elastic K+ 12C scattering at initial kaon laboratory momentum 0.8 GeV/c. The notation is the same as in Fig. 3.

Increase Fig.15FIG. 15. Dependence of D E on the initial energy of the particles. The solid curve is for p12C, the dot - dash curve for p4Hee, the dashed curve for pd, and the dotted curve for K+ 12C. The points o show the values of D E for p+,- 12C at the energies at which they are the same for p- and p+, and the points · and white squares, respectively, show the values when they are different.

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