Ultra-high-speed radio wave communication

Abstract

To provide an ultra-high-speed radio communication method that can contribute to achieving higher-speed radio wave communication, which is different from a conventional communication method using a radio wave signal in which it has been considered that radio wave communication can be speeded up by shortening wavelengths of transverse waves because radio waves have been regarded as the transverse waves and which has achieved speed-up of the radio wave communication up to now, where the speed-up of communication enables more information to be communicated in a specific time, which also can enables communication volumes to increase.SOLUTION: Wave energy (a wave phenomenon) such as radio waves is divided into transverse waves that oscillate in a direction perpendicular to a transmitting direction of radio waves and longitudinal waves that oscillate in a direction parallel to the transmitting direction of the waves. The longitudinal waves are higher in transmitting speed than the transverse waves. (The same is true of longitudinal waves (P waves) and transverse waves (S waves) in an earthquake waves.) Although the radio waves have been regarded as transverse waves (limited to transverse waves) up to now, radio waves of longitudinal waves also can be generated. Therefore, higher-speed radio wave communication can be achieved by using the radio waves of the longitudinal waves.SELECTED DRAWING: None

Description

[Technical Field]

[0001] The present invention relates to an application technology of radio wave communication technology. [Background technology]

[0002] Wireless communication technology that uses radio waves (signals). Summary of the Invention [Problem to be solved by the invention]

[0003] Conventionally, in communication methods using radio waves (signals), the idea has been to use radio waves with shorter wavelengths (radio waves with higher frequencies) in order to achieve faster communication. A short wavelength (high frequency) means that the distance between adjacent peaks and valleys in the vibration waveform of a radio wave, which is a transverse wave and vibrates perpendicular to the direction of wave propagation, is short. It was thought that shortening the wavelength of this transverse wave would be a way to increase the speed of radio wave communication. In response to this, we provide a method that differs from conventional thinking and contributes to realizing speeds greater than those of conventional high-speed radio wave communications. [Means for solving the problem]

[0004] Until now, it has been thought that radio waves are transverse waves (radio waves can only be generated by transverse wave phenomena), but this idea is incorrect; longitudinal wave radio waves can also be generated. A longitudinal wave, also called a compressional wave, is a wave that vibrates in a direction parallel to the direction of wave propagation. Parallel waves (vibrations) are waves in which charged particles have areas of high density and areas of low density and travel (transmit) in a straight line. Conventional methods of generating (transmitting) radio waves involve vibrating the radio wave generating surface (charged vibrating surface) up and down or left and right, but longitudinal wave radio waves can be generated (transmitted) by vibrating the radio wave generating surface (charged vibrating surface) back and forth (back and forth facing the direction of radio wave transmission). This method solves the problem.

Claims

1. The radio waves used in wireless communication are vibrations of electrically charged particles. These radio waves are transverse waves that travel through the air and cause electrically charged particles present in the air to move. (Radio waves are the vibration phenomenon of electrically charged particles in the air.) A transverse wave is a wave that vibrates perpendicular to the direction of its travel. In a vertical vibration (a phenomenon in which the wave moves back and forth), the distance between adjacent peaks and valleys in the repeating uneven shape is called the wavelength. The shorter the wavelength of this transverse wave (higher frequency radio wave), the higher the directionality (straightness) of the radio wave, and therefore the faster the radio wave travels (transmits). Therefore, the faster the radio wave communication, the shorter the wavelength (higher frequency band) of the radio wave used. This is a method of increasing communication speed (travel speed) by using longitudinal wave radio waves, rather than the conventional approach of high-speed radio wave communication, which is to increase communication speed (travel speed) by using transverse wave radio waves with shorter wavelengths. A method of achieving faster radio wave communication than conventional high-speed radio wave communication by using longitudinal waves to increase communication speeds, rather than shortening the wavelength of transverse waves. A longitudinal wave is a wave that vibrates parallel to the direction of wave propagation. Also known as a compressional wave, the charged particles of radio waves travel parallel to the direction of wave propagation. (There are areas with high and low density of charged particles, and the wave propagates (transmits) in a straight line.) While a transverse wave is a wave in which electrically charged particles travel (propagate) by repeatedly taking on the shape of peaks and valleys, a longitudinal wave is a wave in which electrically charged particles travel (propagate) by repeatedly taking on the shape of peaks and valleys. While conventional radio wave transmitting devices generate (transmit) radio waves by vibrating a radio wave generating source (charged vibrating surface) up and down or left and right, this device generates radio waves by vibrating a radio wave generating source (charged vibrating surface) back and forth, which makes it possible to generate (transmit) longitudinal radio waves.

2. A communication standard using the method of claim 1. (Radio waves used for communication purposes)

3. A remote sensing standard used for observation and surveying using the method of claim 1.

4. A standard for radio waves used in defense equipment applications using the method of claim 1 (radar for guidance of missiles, detection of submarines, reconnaissance from satellites, etc.).

5. Apparatus, facilities, defense equipment, aircraft, ships and other transportation means, artificial satellites, planetary probes, remotely controlled construction machinery, and agricultural machinery that use the standards set forth in claims 2, 3, and 4.

6. A service or business using the device, facility, defense equipment, aircraft, ship or other transportation means, artificial satellite, planetary probe, remotely controlled construction machine, or agricultural machine according to claim 5.