Phased array quantum thruster

Abstract

The invention discloses a technical scheme and an implementation method of a space navigation propeller, namely a phased array quantum propeller, using a space-time field superconducting curve velocity principle, and belongs to the technical field of frontier space navigation. According to the invention, a brand-new microwave device technology, namely a phased array unidirectional oscillation microwave device technology, is adopted, so that a steady-state quantum magnetic field which is completely separated from a wave source (namely completely separated from a propulsion system) and independently exists in space and time can be synthesized in a far-field region; a steady-state quantum magnetic field which does not belong to any object (entity) and independently exists in space and time is manufactured around a moving superconductor to push the system to advance, and the superconductive curved speed refers to the speed of the superconductor in the steady-state quantum magnetic field which does not belong to any object.

Description

Technical Field

[0001] The present invention relates to the frontier field of aerospace technology, and in particular to a brand-new phased array unidirectional oscillator microwave device technology and a laser phase-controlled crystal unidirectional oscillator technology. Background Art

[0002] As humans continue to move into deep space, the limitations of rockets using the recoil principle are becoming more and more obvious. Before a rocket takes off, it must carry a large amount of propellant. The propellant not only takes up a lot of space, severely limiting the rocket's load and speed, but is also prone to explosion accidents, causing irreparable losses. Rocket-propelled spacecraft need to separate from the rocket after the propellant is exhausted. This not only increases the technical difficulty and cost of reusing rockets and spacecraft, but also makes rocket-propelled spacecraft unable to perform long-distance interstellar navigation. Unlike rockets that use the recoil principle, phased array quantum thrusters use the space-time field superconducting warp principle (the space-time field superconducting warp principle is to create a steady-state quantum magnetic field around a moving superconductor that is not subordinate to any object and exists independently in space and time to propel the system forward. The superconducting warp refers to the speed of the superconductor in this steady-state quantum magnetic field). It does not need to carry any propellant, does not need to be separated from the spacecraft, can be reused for a long time, and can continuously generate strong thrust for a long time. In theory, a phased array quantum thruster using the space-time field superconducting warp principle can accelerate an interstellar spacecraft to the speed of light. Summary of the invention

[0003] 1. The space-time field superconducting warp speed principle used by the phased array quantum thruster The energy of the electromagnetic field (electromagnetic wave) is discontinuous. The current and magnetic field can be either alternating oscillations or unidirectional oscillations: the value of the current intensity or magnetic induction intensity starts from the equilibrium point and changes periodically and repeatedly with time between the highest point in the positive direction and the lowest point in the negative direction, which is called alternating oscillation; different from alternating oscillations, the value of the current intensity or magnetic induction field intensity starts from the equilibrium point and changes periodically and repeatedly with time only between the highest point in the positive direction and the equilibrium point, or changes periodically and repeatedly with time only between the lowest point in the negative direction and the equilibrium point, which is called unidirectional oscillation. Positive or negative does not refer to the direction of the current or magnetic field, but the direction of change of the value of the current intensity or magnetic induction intensity relative to the equilibrium point: the change of the value of the current intensity or magnetic induction intensity greater than the equilibrium point is called positive change, and the change less than the equilibrium point is called negative change. Figure 1 It means that the current intensity value of a certain cross section in the conductor changes periodically in a one-way oscillation between the highest point in the positive direction and the zero point of the equilibrium point over time. In a one-way oscillating current, the current intensity value of any cross section changes in a one-way oscillation. Figure 2It means that the magnetic induction intensity value of a certain point in the magnetic field changes periodically and unidirectionally between the lowest point in the negative direction and the zero point of equilibrium over time. In a unidirectional oscillating magnetic field, the magnetic induction intensity value of any point changes uniformly and unidirectionally. A unidirectional oscillating current can excite a unidirectional oscillating induced magnetic field in the space around it, and a unidirectional oscillating induced magnetic field can excite a unidirectional oscillating displacement current in the space around it. The law of the displacement current exciting the magnetic field is the same as the law of the conduction current exciting the magnetic field: the unidirectional oscillating displacement current can excite a unidirectional oscillating induced magnetic field in the space around it. The unidirectional oscillating displacement current and the unidirectional oscillating induced magnetic field excite each other in space and alternately generate unidirectional oscillating electromagnetic waves. When a unidirectional oscillating electromagnetic wave propagates in space, the magnetic induction intensity of any point located in the direction of wave propagation changes unidirectionally. By using advanced phased array unidirectional oscillator microwave technology, a steady-state quantum magnetic field can be synthesized in the far field, which is completely separated from the wave source (that is, completely separated from the propulsion system) and exists independently in space and time. The principle of space-time field superconducting warp speed is to create a steady-state quantum magnetic field around the moving superconductor that is not subordinate to any object (entity) and exists independently in space and time to propel the system forward. Superconducting warp speed refers to the speed of the superconductor in this steady-state quantum magnetic field.

[0004] How to generate ultra-high frequency unidirectional oscillating current with stable frequency and phase so that the antenna can radiate unidirectional oscillating microwaves with stable frequency and phase is a technical difficulty of phased array quantum thrusters. The ultra-high frequency unidirectional oscillating current generated by traditional electronic technology often has disadvantages such as high noise and unstable frequency. The laser phased crystal unidirectional oscillator is a newly designed oscillator that can generate ultra-high frequency unidirectional oscillating current with very stable frequency and phase. It is mainly composed of an ultra-high frequency energy-trapped piezoelectric crystal oscillator and two phased ultra-short pulse lasers on the left and right. There is a reflective coating with extremely high reflectivity on each of the two surfaces of the energy-trapped piezoelectric crystal oscillator. The two phased ultra-short pulse lasers on the left and right can simultaneously emit ultra-short laser pulses with unidirectional oscillating light intensity. The first ultrashort laser pulse emitted by the left laser and the first ultrashort laser pulse emitted by the right laser are simultaneously shot from two opposite directions onto the two surfaces of the energy-trapping piezoelectric crystal oscillator. In the first half of the unidirectional oscillation cycle, the light pressure gradually increases, and the thickness of the energy-trapping piezoelectric crystal oscillator is gradually compressed to the lowest point (the thickness of the piezoelectric crystal is the lowest point when it is compressed to the minimum thickness by external force; the thickness of the piezoelectric crystal is the equilibrium point when the external force is constant and the piezoelectric crystal does not deform; the thickness of the piezoelectric crystal is the highest point when it is stretched to the maximum thickness by external force). In the second half of the unidirectional oscillation cycle, the light pressure gradually decreases, and the energy-trapping piezoelectric crystal oscillator overcomes the light pressure under the action of its own restoring force, and the thickness gradually returns to the equilibrium point. When the thickness of the energy-trapped piezoelectric crystal oscillator returns to the equilibrium point, the second ultrashort laser pulse emitted by the left laser and the second ultrashort laser pulse emitted by the right laser are simultaneously shot from two opposite directions onto the two surfaces of the energy-trapped piezoelectric crystal oscillator, causing the thickness of the energy-trapped piezoelectric crystal oscillator to gradually shrink to the lowest point and then return to the equilibrium point... Under the action of the phase-controlled ultrashort laser pulses emitted by the left and right phase-controlled ultrashort pulse lasers, the energy-trapped piezoelectric crystal oscillator continuously performs unidirectional vibrations with the thickness value periodically changing between the lowest point and the equilibrium point, thereby outputting an ultra-high frequency unidirectional oscillating current with stable frequency and phase.

[0005] Design and manufacturing method of three-phased array quantum thruster The phased array unidirectional oscillator is the core device of the phased array quantum thruster, which can be divided into two types: sinusoidal wave synthesis type and triangular wave synthesis type. The sinusoidal wave synthesis type phased array unidirectional oscillator microwave device is composed of 3 or integer multiples of 3 unidirectional oscillator microwave devices, each of which has an ultra-high frequency unidirectional oscillator current source with a very stable frequency and a unidirectional oscillator microwave transmitting antenna. The front end and the end of the unidirectional oscillator microwave transmitting antenna are respectively connected to a coupler to form a circuit that can conduct unidirectional oscillating current. The working principle of the sinusoidal wave synthesis type phased array unidirectional oscillator microwave device is to control the frequency and phase of the unidirectional oscillator microwave magnetic field in the far field by controlling the frequency and phase of the unidirectional oscillator current fed to each unidirectional oscillator microwave transmitting antenna to synthesize a steady-state quantum magnetic field. Figure 3 The waveform of the two equilibrium points being zero and the phase difference being half of the one-way oscillation cycle is similar to a series of sinusoidal positive one-way oscillation magnetic fields. The positive one-way oscillation magnetic field with the equilibrium point n and the frequency twice the original frequency as shown by the dotted wave line in the figure can be superimposed. This magnetic field and a negative one-way oscillation magnetic field with the equilibrium point being zero and the same amplitude and frequency cancel each other out after being superimposed, thus forming a Figure 4 The steady-state quantum magnetic field with a magnetic induction intensity value of n is shown. Compared with the sine wave synthesis type, the triangle wave synthesis type phased array unidirectional oscillator microwave generator is more complex. It has two groups of unidirectional oscillators, each of which can emit a specific number of unidirectional oscillator microwave beams with adjustable frequency and phase, and synthesize a unidirectional oscillator microwave magnetic field with a waveform like a series of isosceles triangles in the far field. Figure 5 As shown in the figure, two waveforms with a phase difference of half a unidirectional oscillation cycle are like a series of isosceles triangle unidirectional oscillation microwave magnetic fields superimposed, which can synthesize a steady-state quantum magnetic field as shown by the dotted straight line in the figure. Whether it is a phased array unidirectional oscillation microwave device of the sine wave synthesis type or a triangle wave synthesis type, its working principle is to control the frequency and phase of the unidirectional oscillation microwave magnetic field in the far field by controlling the frequency and phase of the unidirectional oscillation current fed to each unidirectional oscillation microwave device transmitting antenna to synthesize a steady-state quantum magnetic field. Figure 6This is a simplified diagram of a simple experimental phased array quantum thruster, which is mainly composed of a phased array unidirectional oscillator microwave (1), a phased array unidirectional oscillator microwave (2), a superconducting wire (3), and a superconducting wire (4). The two superconducting wires (3) and (4) are uniformly located outside a certain range in the far field, so that the magnetic field of the unidirectional oscillating microwave propagating to the superconducting wire can be regarded as a field outside the system, and the magnetic field force generated by the magnetic field of the superconducting wire on the transmitting antenna of the phased array unidirectional oscillator microwave is zero or negligible. When the phased array quantum thruster is working, a constant current will pass through the two superconducting wires (3) and (4), and the two phased array unidirectional oscillator microwaves (1) and (2) will respectively create a steady-state quantum magnetic field with a field strength of up to 20,000 Gauss around the two superconducting wires (3) and (4), which is completely separated from the wave source (that is, completely separated from the propulsion system) and exists independently in space and time, so that the two superconducting wires (3) and (4) with constant current will generate electromagnetic forces in the same direction to propel the system forward. By regularly combining a large number of phased array unidirectional oscillator microwave devices and a large number of superconducting wires together, a high-thrust phased array quantum thruster can be made.

Claims

1. A space propulsion device using the space-time field superconducting warp principle - a phased array quantum propulsion device, comprising a phased array unidirectional oscillator microwave device (1) and a phased array unidirectional oscillator microwave device (2), a superconducting wire (3) and a superconducting wire (4). Its characteristics are: The superconducting wire is outside a specific range of the far field, so that the magnetic field of the superconducting wire has zero or negligible force on the transmitting antenna of the phased array unidirectional oscillator microwave device. The phased array unidirectional oscillator microwave device can create a steady-state quantum magnetic field around the superconducting wire that is not subordinate to any object and exists independently in space and time to propel the system forward.

2. According to claim 1, the phased array unidirectional oscillator microwave technology used in (1) and (2) includes laser phased crystal unidirectional oscillator technology, characterized in that: Two phase-controlled ultrashort laser pulses are used to irradiate the two surfaces of the energy-trapped piezoelectric crystal oscillator from two opposite directions, and the unidirectional oscillating light pressure is used to make the energy-trapped piezoelectric crystal oscillator generate an ultra-high frequency unidirectional oscillating current with a very stable frequency.

3. According to claim 1, the steady-state quantum magnetic field synthesis technology includes two technologies: the technology of synthesizing the steady-state quantum magnetic field with sine waves and the technology of synthesizing the steady-state quantum magnetic field with triangular waves, wherein: The characteristic of the sine wave synthesis steady-state quantum magnetic field technology is that two positive unidirectional oscillating microwave magnetic fields with waveforms like a series of sine curves and one negative unidirectional oscillating microwave magnetic field are created in the far field, and these three magnetic fields are regularly superimposed to form a steady-state quantum magnetic field. The characteristic of the triangle wave synthesis steady-state quantum magnetic field technology is that two unidirectional oscillating microwave magnetic fields with waveforms like a series of isosceles triangles are created in the far field, and these two magnetic fields are superimposed to form a steady-state quantum magnetic field.

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