Lorentz Force Correction and Radiation Frequency Property of Charged Particles in Magnetic.pdf

a r X i v : p h y s i c s / 0 3 0 4 0 2 3 v 3 [ p h y s i c s .a c c - p h ] 2 6 A p r 2 0 0 3 Lorentz Force Correction and Radiation Frequency Property of Charged Particles in Magnetic Dipole Ji Luo?, Chuang Zhang, Bo Liu? Accelerator Center, Institute of High Energy Physics, Beijing, China (Dated: February 2, 2008) By concern of compression of charge density field, the corrected Lorentz force formula and con- sequent inference is presented. And further radiation frequency property of an individual charge density field in magnetic dipole is analyzed respectively for radiant property of the charged particle and the emitted electromagnetic wave transfer property between the moving radiant source and ob- server. As results, the behavior and radiation frequency property of the electron beam in magnetic dipole is interpreted upon the individual’s behavior and property. At final, the potential application is put forward for wider interest. I. INTRODUCTION In view point of electrical charge density field [1], Lorentz interaction of individual charge and magnetic field can happen only in a specified space — overlapped volume of the charge density field and magnetic field. When the volume is in compressed status or varies with a change of the charge internal potential energy due to energy exchange, the Lorentz force will be affected since the magnetic action amount is proportion to the volume; consequently the centrifugal force’s variation will result in the angular velocity’s variation and radiant power’s of the charged particle. By considering the charge’s internal structure and compressed status, Lorentz force correcting factor is studied. In addition, for the Lorentz force to work for causing electromagnetic radiation, there will be a corresponding property on the radiation frequency of a single particle during a single pass; however on the radiation property involving the particle’s radiant frequency, observer detecting frequency and radiant power, currently re