K+p elastic scattering at 3.0 GeV/c

Debaisieux, J.; Grard, F.; Heughebaert, J.; Pape, L.; Windmolders, R.; George, R.; Goldschmidt‐Clermont, Y.; Henri, Victor; Leith, D.W.G.S.; Lynch, G.; Müller, F.; Perreau, J.M.; Otter, G.; Sällström, Pehr

doi:10.1007/bf02753191

Cited by 44 publications

(1 citation statement)

References 12 publications

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“…We have found from the available literature suitable experimental data on the angular distributions of the elastic differential cross sections a t 73 energies for K-p scattering [16-351 and at 49 energies for K+p scattering [33, [36][37][38][39][40][41][42][43][44][45][46][47][48][49][50][51][52][53]. For each energy a t which a reliable extrapolation to the forward direction was made in the paper originally reporting the experimental data, we' used the reported value of (du/dQ), or (duldt), for our determination of the real part of the forward scattering amplitude.…”

Section: The Data Compilationmentioning

confidence: 99%

Experimental Knowledge of the Real Parts of the K±p Forward Scattering Amplitudes

Dumbrais

Queen

1971

Fortschr. Phys.

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A compilation of experimentally determined values of the real parts of the K±p forward scattering amplitudes is given in a form in which these data may be used directly in analyses of forward dispersion relations. The methods of determining these real parts from experimental data are briefly reviewed and a survey of K±p low‐energy parametrizations and phase shift analyses is given. A summary is given of the theoretical determinations of the real parts.

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Section: The Data Compilationmentioning

confidence: 99%

Experimental Knowledge of the Real Parts of the K±p Forward Scattering Amplitudes

Dumbrais

Queen

1971

Fortschr. Phys.

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Recent Applications of KN Forward Dispersion Relations and Sum Rules

Queen

Restignoli²,

Violini³

1969

Fortschr. Phys.

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Recent applications of kaon‐nucleon forward dispersion relations, superconvergence relations, finite energy sum rules, derivative sum rules, and the Adler‐Weisberger sum rule are reviewed. These dispersion relations and sum rules have been used for the determination of the KNA and KN coupling constants, the phases of the kaon‐nucleon forward scattering amplitudes, and the Regge pole parameters, and have allowed tests of the PCAC hypothesis for strangeness‐changing currents. They also provide important constraints which help to resolve ambiguities in the phenomenological analysis of the scattering data. A critical comparison of various methods which have been proposed is given, the theoretical predictions are compared with experiment when possible, and our present knowledge of the kaon‐nucleon interaction parameters is summarized. Some new results are presented.

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2.2 Tables of total elastic cross sections of (K+)p and (K-)p, (K-)n

Carlson¹

Elastic and Charge Exchange Scattering of Elementary Particles

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K+p elastic scattering at 3.0 GeV/c

Cited by 44 publications

References 12 publications

Experimental Knowledge of the Real Parts of the K±p Forward Scattering Amplitudes

Experimental Knowledge of the Real Parts of the K±p Forward Scattering Amplitudes

Recent Applications of KN Forward Dispersion Relations and Sum Rules

2.2 Tables of total elastic cross sections of (K+)p and (K-)p, (K-)n

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