Ultra high-speed electric (signal) communication

Abstract

To provide a method different from the prior arts and contribute to implementation of higher-speed electric communication while, in a conventional communication method using an electric signal, since electricity (electric power) for signal amplification was supplied from a transmission network of an electric power company to a communication network of a communication company, an AC current generated and transmitted by the electric power company was used and since it was not considered that a speed at which the current flows (advances) was affected by a difference in a frequency (wavelength) of the current to be used, there was no idea that the high-speed electric communication was to be implemented by changing the frequency (wavelength).SOLUTION: A current is divided into an AC current, which vibrates in a vertical direction with respect to a direction in which the current flows (advances) (advances in a zigzag manner while changing the direction into an opposite direction), and a DC current which vibrates in a parallel direction with respect to the direction in which the current flows (advances) (advances in a rectilinear propagation manner without changing the direction). A speed at which a current flows (advances) is higher for the DC current than for the AC current (that is the same principle as a difference in the speed of advance between a longitudinal wave (DC current) and a lateral wave (AC current) in a wave motion phenomenon). While the AC current is used as a current for electric signal amplification up to the moment, the DC current is used therefor, such that the problem is solved.SELECTED DRAWING: None

Description

[Technical Field]

[0001] The present invention relates to the application of telecommunications technology. [Background technology]

[0002] Wired communication technology using electrical signals

[0003] AC / DC conversion technology

[0004] Photoelectric effect and other energy conversion technologies Summary of the Invention [Problem to be solved by the invention]

[0005] Conventionally, in communication methods using electricity (signals), it was not thought that differences in frequency (wavelength) (of electric current) would affect communication speed or capacity, as is the case with communication methods using radio waves. Therefore, there was no thought of improving communication performance by changing the current used for communication. In response to this, a method different from the conventional one is provided, which contributes to the realization of higher speed telecommunications than conventional telecommunications. [Means for solving the problem]

[0006] Until now, communication methods that use electricity (signals) have involved supplying power and amplifying electrical signals at relay stations installed at appropriate intervals along the communication lines of telecommunications companies. This prevents signals that weaken due to natural discharge while transmitting over communication lines from disappearing during long-distance transmission. Conventionally, this signal amplification power has been supplied from the power company's power lines. The power generated by electric power companies is AC due to the voltage conversion during transmission, so the power supplied for signal amplification is also AC, and the electrical signals transmitted over the communication lines of communication companies are AC. Direct current has a common pattern of movement (progression law) with longitudinal waves in wave phenomena, while alternating current has a common pattern of movement (progression law) with transverse waves. As can be seen from the relationship between P waves and S waves in seismic waves, longitudinal waves travel faster than shear waves. As a result, even in the flow of electrons (electric current phenomenon), direct current travels faster than alternating current, so the problem is solved by supplying direct current instead of alternating current for amplifying electrical signals at telecommunications company communication line relay stations. There are two ways to supply DC current for amplifying electrical signals: by connecting an AC adapter or converter to the wire that supplies power to the relay station of the communication line, converting the AC current from the power company's transmission line into DC current, and then supplying it to the relay station; or by installing a dedicated power generator and receiving power from it, rather than receiving power from the power company's transmission line (DC power generation such as the photoelectric effect).

Claims

1. The current of the electrical signal used in wired communication is the phenomenon of electrons flowing through copper wires, etc. This flow of electrons (electric current) can be divided into direct current and alternating current. Communications using wired electrical signals are transmitted over telecommunications companies' telegraph lines, but the electricity (current) used to amplify the electrical signals supplied at relay stations comes from the power companies' transmission lines. The power generation method used by electric power companies is alternating current, which makes it easy to adjust the voltage when transmitting electricity. Therefore, typical electrical communications are electrical signals of alternating current. (Devices such as PCs that use AC adapters use direct current, but outdoor communication lines have relay stations at regular intervals where electricity (current) is supplied from the power company's power grid. This amplifies the electrical signal, which weakens due to natural discharge during transmission over the communication line, so that the signal does not disappear even over long distances.) The flow of electrons (electric current phenomenon) is not considered to be one of the wave energies (wave phenomena) like sound waves or radio waves, but the ways in which electric current flows, direct current and alternating current, share physical properties with the way longitudinal waves and transverse waves in wave phenomena are transmitted. Longitudinal waves are waves that vibrate parallel to the direction of their travel. In the case of sound waves, the medium, and in the case of radio waves, the charged particles, travel in a straight line, alternating between areas of high and low density. A transverse wave is a wave that vibrates perpendicular to the direction of its propagation. In the case of radio waves, charged particles move in a zigzag pattern, reversing their direction, such as up and down or left and right. When it comes to the same wave phenomenon, longitudinal waves travel faster than transverse waves. Due to this physical characteristic, in the case of electric current, direct current, which moves more like a longitudinal wave, travels faster than alternating current, which moves more like a transverse wave. This property is utilized to improve the speed of telecommunications by using direct current instead of conventional alternating current to amplify electrical signals. A method of supplying direct current to relay stations to amplify electrical signals in order to achieve faster communication than conventional telecommunications. One way to convert the electrical signals transmitted over a telecommunications company's communication lines into direct current instead of the conventional alternating current is to install AC adapters or converters at each relay station on the communication lines. (Connect an AC adapter or converter between the power company's power lines and the communication company's communication lines.) Then, after converting the AC current flowing through the power company's transmission lines into DC current, it supplies it (transmits it) to amplify the electrical signals being transmitted over communication lines. Alternatively, instead of supplying the current for amplifying the electrical signal from the power company's power transmission lines, a dedicated power source is installed at each relay station of the communication company's communication lines. This dedicated power source is a power generating device that utilizes energy mutual conversion effects such as the photoelectric effect and pyroelectric effect. Because this power generation device generates direct current (DC power generation), no device is required to convert alternating current to direct current; the power generation device (dedicated power source) is connected directly to the communication line relay station to supply current for amplifying electrical signals. This method allows all electrical communication between terminals to be DC current.

2. A communication standard using the method of claim 1.

3. A device or facility that uses the communication standard according to claim 2.

4. A service or business that uses the device or facility according to claim 3.