A. Dymnikov et R. Hellborg, MATRIX-THEORY OF THE MOTION OF A CHARGED-PARTICLE BEAM IN CURVILINEARSPACE-TIME .1. GENERAL-THEORY, Nuclear instruments & methods in physics research. Section A, Accelerators, spectrometers, detectors and associated equipment, 330(3), 1993, pp. 323-342
A general relativistic theory of charged particle beam motion along a
curved optical axis, including the gravitational field, is important f
or designers of optimal beam control systems. In this paper, which is
the first of two, a new matrix approach is presented. This allows the
development of a relativistic matrix theory for charged particle beam
motion in the most general case of a curved reference trajectory, incl
uding the gravitational force. This approach is based on three basic m
atrices: the reference frame matrix, the curvature matrix and the elec
tromagnetic matrix. The equations of the particle beam motion and of t
he electromagnetic field, including the space charge, are given. The n
otations used is independent of the units of the measured fields and e
nergies. In a second paper, also published in this issue, the matrix a
nd recursive methods for solving the nonlinear equations of motion wil
l be presented.