CN111432547A

CN111432547A - Method for manufacturing linear charged particle induction accelerator by using variable current

Info

Publication number: CN111432547A
Application number: CN201911105018.7A
Authority: CN
Inventors: 赵继广; 朱建云
Original assignee: Individual
Current assignee: Individual
Priority date: 2019-11-08
Filing date: 2019-11-08
Publication date: 2020-07-17

Abstract

The invention discloses a method for manufacturing a linear charged particle induction accelerator by using variable current. The method mainly utilizes an induced electric field which is generated in the surrounding space by the changing current and is parallel to the changing current to accelerate the charged particles. The method indicates that the change current is symmetrical, the magnetic force of the change current borne by the charged particles is counteracted when the charged particles are in the middle of the symmetrical change current, and the comprehensive stress of the charged particles is the induced electric field force. The invention is simple and practical, and increases the method for manufacturing the induction accelerator.

Description

Method for manufacturing linear charged particle induction accelerator by using variable current

Technical Field

The invention relates to application of a theory of generating an induced electric field by changing current, in particular to an induction accelerator.

Background

The study of varying currents to generate induced electric fields is the basis of this approach. The common technical theory of the induction accelerator is that the electric field is generated by changing the magnetic field, and the theory of generating the induced electric field by changing the current is technically more convenient and direct.

Disclosure of Invention

The invention is a convenient method for accelerating charged particles by using variable current; the invention provides a method for using a variable current; the invention provides and successfully experiments that the induced electric field of the changing current is utilized to enable the induced wire to generate the induced current, so that the charged particles can be accelerated under the condition of the changing current.

Drawings

The present invention will be described in further detail with reference to the accompanying drawings and specific embodiments.

Fig. 1 and 2 (current cross-sectional view of fig. 1) are experimental diagrams of a first technique for generating an induced electric field by varying a current.

Fig. 3 (current cross-sectional view) is a further experimental diagram based on the experiment of fig. 1. Fig. 4 is a schematic diagram of the present invention, which is briefly described as a whole.

Detailed Description

The present invention provides a convenient method for accelerating charged particles using a varying current. As shown in fig. 1 and fig. 2 (the current cross-sectional view of fig. 1), experiments show that when the current I increases simultaneously, the wire between the two parallel currents I forms a closed loop at a distance, and an induced current I' is generated due to the induced electric field generated by the changing current. The two currents I have the same change, and experiments show that the current generated by the middle wire when the two currents I simultaneously change in the same way is 2 times of the current generated by the middle wire when the single current I changes. Thus, the current is changed to discharge charged particles without discharging a wire, for example, if there are charged particles between the segments AB, the current I becomes larger (or smaller) and the charged particles between the segments AB are accelerated by the induced electric field. When the charged particles are on the straight line of AB, the magnetic force of two changing currents I on the charged particles is mutually offset by comprehensively looking at the action of the charged particles, and the resultant force of the two changing currents I is the induced electric field force. Experiments show that when the current I becomes larger or smaller, the middle lead generates induced currents in different directions. Experiments also show that when the distance between two symmetrical variable long direct currents I is smaller, the induced electric field at the position of the I' lead is larger, and the distance between the variable currents when the charged particles are accelerated can be determined according to requirements. The distance between I shown in fig. 1 is for convenience of drawing.

The present invention provides a way to generate more induced electric fields. As shown in fig. 3 (current cross section), when a plurality of symmetrical parallel currents I become large, and the central conducting wire forms a closed loop at a far position, it will generate an induced current as shown in fig. 3 (current cross section) and the direction of the changed current is reversed due to the induced electric field of the changed current. The larger the number of the changing currents, the larger the induced current is generated. If the middle of the large varying current (or the small varying current) shown in fig. 3 (current cross-section) is not a wire but a charged particle, the charged particle in the middle can be accelerated by the action of the induced electric field in this way. How many varying currents are used, in what form, can be conveniently determined by the actual need to accelerate the charged particles. The distance between the various changing currents shown in fig. 3 (current cross-sectional view) is also for convenience of drawing, and in the case of multiple changing currents, the induced electric field is larger when the changing current is closer to the I' lead position, and the distance between the changing currents when the changing currents accelerate the charged particles can be determined according to requirements.

The varying current need not be direct current, and may be an alternating current or other current such as a pulse current by using a technique.

The invention is a technical method convenient for practical application. As shown in fig. 4, as long as the symmetry of the varying current is ensured, the charged particles will be only affected by the induced electric field in the middle; as long as the changing current is technically controlled to ensure the direction of the induced electric field to be consistent, the middle charged particles can be accelerated.

The above experiment is only conducted to generate the induced current, but the conclusion and the result of the invention are not affected.

The method of the present invention has been described in greater detail, and any obvious alterations and applications thereof which do not depart from the true spirit of the invention will constitute a violation of the patent rights afforded by the invention and will carry the relevant legal responsibility.

Claims

1. A method of manufacturing a linear charged particle induction accelerator using varying current, comprising:

the method is based on the total or major acceleration of electrons or other charged particles by means of an induced electric field parallel to the varying current, which is generated in the surrounding space by the varying current.

2. A method of manufacturing a linear charged particle induction accelerator with varying current according to claim 1, characterized in that:

the variable current used includes direct current, alternating current, or pulsed current as well as various other forms of current.

3. A method of manufacturing a linear charged particle induction accelerator with varying current according to claim 2, characterized in that:

in addition to the induced electric field generated by the varying current, other techniques are also included to generate more induced electric fields.