《High-Energy Electron Scattering Tables》求取 ⇩

PART Ⅰ：HIGH-ENERGY ELECTRON SCATTERING1

ⅠIntroduction3

Ⅱ Electron Scattering in the Born Approximation5

Ⅲ Accuracy of the First Born Approximation8

Ⅳ Choice of Nuclear Models13

ⅤDiscussion and Preparation of the Tables14

Auxiliary Trigonometric Functions16

Table of Functions；Nuclear Charge Densities and Form Factors16

Nuclear Charge Density Distributions23

Nuclear Form Factors23

Proton and Neutron Cross Sections and Form Factors23

Point Nucleons23

Nucleons of Finite Size26

Aids in Computing Proton and Neutron Form Factors30

The Deuteron32

Elastic Electron Scattering from a Deuteron Composed of Point Nucleons33

Elastic Electron Scattering from a Deuteron Composed of Extended Nucleons38

Inelastic Electron Scattering from a Deuteron Composed of Point Nucleons40

Inelastic Electron Scattering from a Deuteron Composed of Extended Nucleons(The Neutron)43

Nuclei Heavier than the Deuteron49

The Alpha Particle49

Nuclei of the First p-Shell50

Medium Heavy and Heavy Nuclei51

Energy of Scattered Electron54

Electron-Electron Scattering54

ⅥKinematic Relations56

Incident Electrons56

Moving Target Nucleus56

An Angular Relation57

Relation of Laboratory Angles to CM Angles57

Angular Distributions in Laboratory and CM Systems58

Energies in Laboratory and CM Systems58

Projectiles Heavier than Electrons59

Momenta of the Particles after Collision59

Angular Relationship between Laboratory and CM Systems60

Angular Distributions in Laboratory and CM Systems60

Energy in CM System60

Target-Nucleus Distribution60

ⅦSummary of Nuclear Size Parameters61

Ⅷ Application to Scattering of Muons64

Ⅸ Graphical Aids to Computation66

References77

PART Ⅱ：NUMERICAL TABLES81

ⅠAuxiliary Trigonometric Functions83

Ⅱ Nuclear Charge Density—Gaussian Model84

Ⅲ Nuclear Charge Density—Exponential Model86

Ⅳ Nuclear Charge Density—Hollow Exponential Ⅰ Model88

Ⅴ Nuclear Charge Density—Hollow Exponential Ⅱ Model90

Ⅵ Nuclear Charge Density—Yukawa Ⅰ Model92

Ⅶ Nuclear Charge Density—Yukawa Ⅱ Model94

Ⅷ Nuclear Charge Density—Hollow Gaussian Model96

Ⅸ Nuclear Charge Density—Harmonic Well Model(α=1/3，2/3，1，4/3，5/3，2)98

Ⅹ Nuclear Charge Density—Modified Exponential Ⅰ Model110

Ⅺ Nuclear Charge Density—Clementel-Villi Model(f=0．2)112

Ⅻ Nuclear Charge Density—Modified Harmonic Well Model(α1=0．725×10 -13cm；α2=0．300×10 -13cm)114

ⅩⅢ Nuclear Form Factor—Uniform Model116

ⅩⅣ Nuclear Form Factor—Gaussian Model119

ⅩⅤ Nuclear Form Factor—Exponential Model122

ⅩⅥ Nuclear Form Factor—Shell Model125

ⅩⅦ Nuclear Form Factor—Hollow Exponential Ⅰ Model128

ⅩⅧ Nuclear Form Factor—Hollow Exponential Ⅱ Model131

ⅩⅨ Nuclear Form Factor—Yukawa Ⅰ Model134

ⅩⅩ Nuclear Form Factor—Yukawa Ⅱ Model137

ⅩⅪ Nuclear Form Factor—Hollow Gaussian Model140

ⅩⅫ Nuclear Form Factor—Harmonic Well Model(α=1/3，2/3，1，4/3，5/3，2)143

ⅩⅩⅢ Nuclear Form Factor—Modified Exponential Ⅰ Model161

ⅩⅩⅣ Nuclear Form Factor—Clementel-Villi Model(f=0．1，0．2，0．3，0．5，1．0)164

ⅩⅩⅤ Nuclear Form Factor—Modified Harmonic Well Model(α1=0．725×10 -13 cm；α2=0．300×10 -13 cm)179

ⅩⅩⅥ Rosenbluth Scattering Cross Sections for Proton and Neutron182

ⅩⅩⅦ Nuclear Form Factors for the Deuteron Composed of Point Nucleons224

ⅩⅩⅧ Deuteron Properties of Wave Functions Used in the Electron-Scattering Calculations225

ⅩⅩⅨ Deuteron Wave Functions225

ⅩⅩⅩ Inelastic Electric Scattering from a Deuteron Composed of Point Nucleons226

ⅩⅩⅪ Inelastic Electron Scattering from a Deuteron Composed of Extended Nucleons(α1P=α2P=α2N=0．8×10 -13 cm)237

ⅩⅩⅫ Inelastic Electron Scattering from a Deuteron Composed of Extended Nucleons(α1P=α2P=0．8×10 -13 cm and α2N=0．6 and 1．0×10 -13 cm)249

ⅩⅩⅩⅢ Energy of Scattered Electron259

ⅩⅩⅩⅣ Electron-Electron Scattering Cross Sections262