JP2009077360A - Neutrino communication using nuclear fusion device - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To attain an inexpensive and simple neutrino communication by using a low-voltage deuterium nuclear fusion device. <P>SOLUTION: In a communication apparatus, (1) a receiver nips a paper soaked with a car battery liquid and heavy water between two Al plates that form an anode and a cathode and applies a DC voltage V<SB>0</SB>(finally 100V or higher) thereacross. There is a small hole on the cathode Al and helium ions are generated and enters a beam collector. (2) A transmitter has the same configuration as the receiver but there is no small hole on the cathode Al and an anode side is turned toward the receiver. A voltage between the anode and the cathode adds a variation voltage ΔVsinωt to V<SB>0</SB>. Eccentricity in the Al plate planes of the receiver and the transmitter is adjusted in accordance with a distance. <P>COPYRIGHT: (C)2009,JPO&INPIT

Description

Communication using electromagnetic waves is quite common today. However, since the electromagnetic wave is blocked or reflected by the conductor, the communication area is still limited. Thus, Nutrino communication is also considered because of its straightness.
The conventional neutrino generation method uses a huge high-energy accelerator. The neutrino detection method was based on 1000 tons of pure water and 1000 photomultiplier tubes (example of Kamiokande). Therefore, huge construction costs (over 10 billion yen) and huge buildings were required. Therefore, a practical neutrino communication device was not possible.
The receiver of FIG. 1 of the present invention is a low-voltage deuterium fusion device that has already been published (Japanese Patent Application No. 2007-128599). A thin paper dyed in a car battery solution and heavy water is sandwiched between two Al plates, and a direct voltage V ₀ (100 V or more) is applied to the anode A and the cathode K to form a self-ignition device. There, He ⁺⁺ ions are generated from the hole in the cathode K and enter the beam collector BC. In this state, the He ⁺⁺ ion current is canceled by the negatively charged taurium particles τ ⁻ (Japanese Patent Application No. 2002-294264). Next, another deuterium fusion device facing in the opposite direction is arranged as a transmitter in the distance, as shown in FIG. An anti-Taunu-Torino v ^* is transmitted from the anode side and travels straight to the receiver (not blocked by the conductor). At this time, when the voltage between the anode A and the cathode K is set to V ₀ which is the same as that of the receiver, the negatively charged taurine particles τ ⁻ of the receiver are neutralized (positively charged taurine particles τ ⁺ are generated) He ⁺⁺ An ion current appears. When the V ₀ is lowered to 0.9 V ₀ or less, the He ⁺⁺ ion current is canceled again (τ ⁻ is generated). When an AC voltage of −ΔVsin ωt is applied to V ₀ of the transmitter, the He ⁺⁺ ion current of the receiver can be changed from a distance as shown in FIG. That is, communication is possible.
When the receiver and the transmitter are, for example, a 20 cm × 20 cm flat plate fusion device as shown in FIG. 4, the deviation θ of the receiver with respect to the transmitter plane at a distance of 2.5 Km is ˜8 ′, 10 Km. Within ~ 2 ', the anti-neutrino ν ^* goes straight and can communicate with varying He ⁺⁺ ion currents up to ~ 1KHz.
The neutrino communication by nuclear fusion according to the present invention is simple and inexpensive, so the neutrino's material penetration and straightness can be used, and it can be used to move to the seabed, the back of the earth and the back of the moon. Communication became possible.

Deuterium fusion device receiver Deuterium fusion device transmitter Correspondence between voltage fluctuation of transmitter and He ⁺⁺ ion current of receiver The relationship between the distance between the receiver and the transmitter and their plane deviation

Explanation of symbols

[Figure 1] Al: aluminum plate, thin paper: Battery - liquid and Soma a paper heavy water, ^{the He ++:} helium divalent cations, BC: bi - Mukorekuta -, A: anode, K: _{cathode, V} 0: Voltage between AK, τ ⁻ : negatively charged taurine particles, τ ⁺ : positively charged taurine particles, i: He ⁺⁺ ion current.
[FIG. 2] ν ^* : anti-Tau-Turino, insulating film: polyethylene, V ₀ −Δ V sin ωt: fluctuation voltage of the transmitter (Δ Vsin ωt: AC voltage).
[FIG. 3] 0.9 V ₀ : Fluctuation point where the voltage between A and K of the transmitter is 10% lower than V ₀ , i: He ⁺⁺ ion current of the receiver corresponding to the voltage of the transmitter, t: Time.
[FIG. 4] X: Distance between receiver and transmitter, θ: Deviation between receiver plane and transmitter plane, BC: Beam collector of receiver, A: Anode of transmitter.

Claims (1)

One deuterium fusion device that generates Taunu-Torino and helium ions He ⁺⁺ is placed on the receiver side, and another deuterium fusion device with the opposite direction is placed on the transmitter side. A communication device that performs communication by sending a Taunu-Torino and changing the He ⁺⁺ flow on the receiving side.

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