TWM648828U - beam device - Google Patents

Abstract

A light beam device includes a light source cavity, which includes a cavity, two electrodes and a focusing lens. Each electrode is located at one end of the cavity, and the focusing lens is located at the other end of the cavity. Each electrode has a tip, and each electrode The tips of the electrodes are close to each other, and the other ends of each electrode are far away from each other; a microwave transmitting coil, which is combined with one end of the cavity close to each electrode; a power module, which is electrically connected to each electrode and the microwave transmitting coil; and a pointing tube, It is located outside the end of the cavity close to the focusing lens. This creation can emit a high-intensity beam, which can be used to cut metal or shoot down small aircraft.

Description

beam device

The invention relates to a beam shooting device, particularly a beam device that uses electrodes to emit light and concentrate it.

Laser technology has been developed for many years and has applications in various aspects of life. However, it is still difficult to extend the range of lasers with current technology. Most of them can only work close to the laser source. Therefore, it is necessary to develop new types of lasers. Beam device to make up for the shortcomings of laser applications.

In view of this, the inventor has accumulated many years of research and practical experience in related fields, and specially created a light beam device to improve the above-mentioned shortcomings of the conventional technology.

The main purpose of this creation is to provide a beam device that uses electrode discharge as the light source, focuses it and emits it, and uses microwaves to enhance the beam energy; it can be supplemented by a hydrogen jet.

In order to achieve the above purpose, the light beam device of the present invention includes a light source cavity, which includes a cavity, two electrodes and a focusing lens. Each electrode is located at one end of the cavity, and the focusing lens is located at the other end of the cavity. The electrodes each have a tip, the tips of each electrode are close to each other, and the other ends of each electrode are far away from each other; a microwave transmitting coil is combined with one end of the cavity close to each electrode; a power module is electrically connected to each electrode and the microwave transmitter a coil; and a pointing tube located outside an end of the cavity close to the focusing lens.

The cavity of this invention can be filled with an inert gas. The internal surface of the cavity is an optical total reflection mirror. The external surface of the cavity has a microwave reflection layer. The inside of the pointing tube is an optical and microwave reflection mirror. Each electrode of this invention can use tungsten electrodes. The focusing lens may be a diamond-shaped lens.

The power module of this creation includes a transformer and a capacitor that generate high-voltage electricity. It can generate high-voltage and high-current electricity (tens of thousands of watts) through the tips of the two electrodes to generate an arc in the inert gas and emit intense light. The cavity The internal mirror can prevent light from escaping. The light is concentrated into the pointing tube after passing through the focusing lens. The inner surface of the pointing tube is also a total reflection mirror, which can guide the concentrated light to the direction of the pointing tube, making it convenient for the user. With a powerful beam it can be used for a variety of purposes. Moreover, the power module of this invention also includes a microwave generator, a wave amplifier, a wave converter, and a radio frequency chip that are electrically connected to the microwave transmitting coil. The power passes through the wave converter, wave amplifier, and microwave generator to form microwaves, and then the radio frequency The chip emits microwaves from the microwave transmitting coil toward each electrode. The spherical surface in the cavity can guide the microwaves to the center of the cavity, allowing the microwaves and the beam to be emitted together to enhance the energy of the beam. The outlet diameter of the pointing tube of this invention can be several millimeters, such as 3 mm to 5 mm.

This invention can further have a hydrogen nozzle. The hydrogen nozzle is spaced outside the pointing tube to prevent the hydrogen in the tube from being affected by the temperature of the light beam. When the hydrogen gas and the light beam are emitted together, more temperature and energy can be increased.

In order to clearly and fully disclose this invention, illustrations of better implementations are enumerated, and the implementation methods are described in detail as follows.

Please refer to the first figure, which reveals a diagram of an embodiment of the present invention. The above diagram illustrates the light beam device of the present invention, which includes a light source cavity 1, which includes a cavity 11, two electrodes 12 and a focusing lens 13 , each electrode 12 is located at one end of the cavity 11, and the focusing lens 13 is located at the other end of the cavity 11. The cavity 11 may have a through hole (not shown) to install the focusing lens 13. Each electrode 12 has a tip, and each electrode The tips of 12 are close to each other, and the other ends of each electrode 12 are far away from each other; a microwave transmitting coil 5 is combined with one end of the cavity 11 close to each electrode 12; a power module 2 is electrically connected to each electrode 12 and the microwave transmitter Coil 5; and a pointing tube 3, which is located outside the end of the cavity 11 close to the focusing lens 13. In this embodiment, the pointing tube 3 is circular funnel-shaped, and the diameter of the outlet of the pointing tube 3 can be several millimeters, such as 3 millimeters. ~5 mm. In the first to third figures, the lines connecting the power module 2 to each electrode 12 are drawn with dotted lines.

In this embodiment, the cavity 11 is filled with an inert gas (such as argon). The internal surface of the cavity 11 is an optical total reflection mirror to prevent light from escaping. The external surface of the cavity 11 has a microwave reflection layer (not drawn). , to reflect the microwaves escaping outside the cavity 11 back into the cavity 11 ; the inside of the pointing tube 3 is an optical and microwave reflecting mirror, which can guide the microwaves and light beams passing through the focusing lens 13 to the exit of the pointing tube 3 .

In this embodiment, each electrode 12 uses a tungsten electrode. The focusing lens 13 is a diamond-shaped lens. In this embodiment, the cavity 11 is a hollow spherical shell made of glass, and the microwave transmitting coil 5 can be a planar coil covered in the spherical shell.

The power module 2 can generate high-voltage and high-current electricity (tens of thousands of watts) through the tips of the two electrodes 12 to generate an arc in the inert gas and emit strong light. In this embodiment, the internal optical total reflection mirror of the cavity 11 can prevent The light escapes and is concentrated into the pointing tube 3 after passing through the focusing lens 13. The end of the pointing tube 3 close to the focusing lens 13 can be located close to the focus of the focusing lens 13, so that all the focused light can enter the pointing tube 3. Among them, the inner surface of the pointing tube 3 is an optical and microwave reflecting mirror, which can guide the concentrated light to the direction of the pointing tube 3. The user will have a powerful light beam that can be used for various purposes.

The power module 2 of this invention also includes a microwave generator (not shown), a wave amplifier (not shown), a wave converter (not shown) and a radio frequency chip (not shown), etc., which are electrically connected to the microwave transmitting coil 5, and the power passes through The microwave is formed by the wave converter (not drawn), the wave amplifier (not drawn) and the microwave generator (not drawn), and then the radio frequency chip (not drawn) emits the microwave from the microwave transmitting coil 5 towards the direction of each electrode 12, allowing the microwave to Shoot out together with the beam to enhance the energy of the beam. The microwave generator (not shown) may be, but is not limited to, a magnetron.

In this embodiment, the microwave transmitting coil 5 is disposed behind each electrode 12 so that the microwaves emitted by the microwave transmitting coil 5 are in the same direction as the light beam. The spherical surface of the cavity 11 in this invention can concentrate the microwaves like a dish antenna and guide the microwaves into the air. The center of cavity 11 allows microwaves and light beams to be emitted together to enhance the energy of the light beam.

This embodiment further has a hydrogen nozzle 4 arranged at intervals outside the pointing tube 3. The hydrogen nozzle 4 does not directly contact the pointing tube 3 but is separated by a short distance to prevent the hydrogen in the tube from being affected by the temperature of the light beam. The hydrogen nozzle 4 The direction of the tube mouth is slightly tilted towards the direction of the tube 3, so that hydrogen can be added to the direction of the beam. When the hydrogen and the beam are emitted together, the hydrogen can burn and add more temperature and energy to the beam. One end of the hydrogen nozzle 4 can be connected to a hydrogen source (not shown), such as a high-pressure hydrogen cylinder, which is common knowledge and will not be described again. The hydrogen nozzle 4 can be made of copper or aluminum and has a nozzle (not drawn) made of tungsten steel to avoid damage by high temperature.

As you can see in the second picture, this creation can heat and melt metal A to achieve the effect of cutting metal A.

As can be seen in the third picture, this creation can be used to shoot aircraft (such as drone B) and destroy the target.

However, the above are only preferred embodiments of this invention and cannot be used to limit the scope of implementation of this invention. All changes and modifications that can be obviously made by those skilled in the art should be regarded as not departing from this invention. The substantial content of this creation.

1:Light source cavity 11:Cavity 12:Electrode 13:Focusing lens 2:Power module 3: Pointing tube 4:Hydrogen nozzle 5: Microwave transmitting coil A:Metal B: Drone

The first picture is a schematic diagram of this creation. The second picture is a schematic diagram of this creation used for cutting metal. The third picture is a schematic diagram of this creation used for shooting drones.

1:Light source cavity

11:Cavity

12:Electrode

13:Focusing lens

2:Power module

3: Pointing tube

4:Hydrogen nozzle

5: Microwave transmitting coil

Claims (5)

A beam device including: A light source cavity, which includes a cavity, two electrodes and a focusing lens. Each electrode is located at one end of the cavity, and the focusing lens is located at the other end of the cavity. Each electrode has a tip, and each electrode The tips of the electrodes are close to each other, and the other ends of the electrodes are far away from each other; A microwave transmitting coil coupled to one end of the cavity close to each electrode; A power module electrically connected to each of the electrodes and the microwave transmitting coil; and A pointing tube is provided outside an end of the cavity close to the focusing lens. The beam device of claim 1, wherein the cavity is filled with an inert gas. The beam device of claim 1, wherein the inner surface of the cavity is an optical total reflection mirror, the outer surface of the cavity has a microwave reflection layer, and the inside of the pointing tube is an optical and microwave reflection mirror. The beam device of claim 1, wherein the cavity is a hollow spherical shell. The beam device according to claim 1 further has a hydrogen nozzle arranged at intervals outside the pointing tube.

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