rexresearch
rexresearch1
Henri PUYUELO, et al.
Gravito-Diode
Gravito-Diode
Abstract
The present invention relates to a transmitter/receiver of gravitational waves capable of allowing man to produce telepathy (thought transmission) or telecommunication at very long range. This device is worn by means of spectacles (32) or of a small helmet in the region of the temporal bone (30) in the vicinity of the inner ear. (Fig. 6). It measures 2 to 3 cm in diameter (35) and has an antenna (34) of about ten centimetres in height. It consists of a box (35) containing a built-in receiver circuit (37) and a built-in transmitter circuit (38) as well as a transmitting gravito-diode (33) and a receiving gravito-diode (44). This device is intended for thought transmission for human beings, for telecommunication at very long range in space vehicles, for psychoanalysis in the medical field (hypnosis, study of the brain, etc.).
The present invention relates to a gravitational wave transceiver capable of allowing man to carry out telepathy (transmission of thoughts) or telecommunications at very long distances.
This device is worn via glasses (32) or a small headset at the level of the temporal bone (30) near the inner ear. (Fig.6) I1 measures 2 to 3 cm in diameter (35) and has an antenna (34) about ten centimeters high.
This antenna is in fact an elongated gravito-diode (33) which detects and transmits gravitational waves. (fig.4)
See the patent for the gravito-diode for further details.
This device! seen in section, (fig.5) comprises: - an earpiece (36) - a receiver integrated circuit (37) - a transmitter integrated circuit (38) - an orifice (39) to allow the device to be worn at
of the temporal bone.
- a light diode (40) which signals the operation of the device - a transmission-reception selector (41) - a 9 Volt battery (42) - an on-off switch (43).
- an antenna (34) which is an elongated gravito-diode.
The receiver circuit is schematically shown in Fig. 1.
A gravitational wave receiving antenna (34) a low voltage signal v selected via a coil (#) and a variable capacitance (8) in the circuit portion I.J.
A Darlington assembly using two transistors Ti (4) and T2 (5) as well as 3 resistors (1), (2), (3) amplifies the low current detected by the gravito-diode-antenna.
The signal v is amplified by a low frequency operational amp and is worth V in M.N.
See the characteristic of the gravito-diode fig.2
The transmitter circuit is schematized in fig.3.
Through the earpiece (36), a gravito-diode receives a weak signal u through a varian resistor (22).
Thanks to a Darlington assembly and a high frequency operational amp.
This voltage is amplified in O P and is worth U.
The variable capacitance (27) makes it possible to tune the antenna (34) and the signal IJ is transmitted on a gravitational frequency.
The device runs on a 9V battery.
1991-10-25
The present invention relates to an electronic component capable of emitting an electrical current after detection of a gravitational wave, or, conversely, of emitting a gravitational wave after the passage of a sufficiently powerful electrical current. This component behaves like a diode and can be called "gravito-diode". The gravito-diode consists of the juxtaposition of a pellet of a strongly electropositive P element (9) and of an electronegative (N) crown (10). In the case in which the electropositive P element is radioactive, the component is protected by a reflecting envelope of parabolic shape (16) and (17) which creates interference rings and which cancels the harmful effect of the X-rays. This component is particularly intended for scientific applications in telecommunications over very long range or spatial, medical and astronomical detection.
1. Description
The present invention relates to an electronic component capable of emitting an electric current after detection of a gravitational wave or conversely of emitting a gravitational wave after the passage of a sufficiently powerful electric current. This component behaves like a diode and can be called a "gravito-diode".
The gravito-diode is constituted by the juxtaposition of a pellet of a strongly electropositive element P (9) and an electronegative corona N (10).
The electropositive element is in the preferential order: 1) Francium 87 Fr 222 radioactive alkali metal.
2) Cesium 55 Cs 133 rare metal.
3) Rubidium 37 Rb 85 rare metal.
or another element from column la of the periodic table of chemical elements in the solid state.
The electronegative element is a semiconductor formed from a silicon crystal doped with antimony or from a semiconductor formed from a germanium crystal doped with antimony or any other alloy presenting a strongly electronegative character.
The juxtaposition of two radioactive metals is strongly discouraged as an explosive reaction could result.
The gravitational wave is polarized in one of the eight directions shown schematically in Fig. 1.
The passage of the wave will slightly modify the orbit of the free electron of the electropositive chemical element P. A weak electric current will be established preferentially by one of the eight conductive wires located at the periphery of the gravitational diode.
(1,2,3,4,5,6,7,8) These are of different section.
The connection for transmission requires wires (E) with a larger section than those intended for reception (R) (see fig. 1). These wires are protected by an insulator (12) to avoid any loss of electrical energy and join on a circular ring 13) connected to a tab (14) denoted -.
All of the P,N elements rest on an insulating substrate of ceramic or plastic type.
A conductive wire (15) of the same nature as the element P passes through the insulating substrate and is conventionally nO +,
In case a radioactive element of type Fr is chosen, protection against harmful radiation must be taken.
(fig. 3)
87 Fr 222 is part of the family of 89 Actinium 227 natural radioactive element and has the advantage of being strongly electropositive.
It produces α poorly penetrating and degrades to Astatine.
87222Frα#24He + 85218At +
harmful)
The half-life of trancium should allow the diode to operate for several hundred years.
A parabolic envelope (16) made of zirconolite CaZrTi207 or perovskite CaTiO3 protects the gravity diode from its harmful radioactive emissions.
The parabolic tee (10) as well as the parabolic tees (17) are calculated to produce interference rings inside the conduit of the gravito-diode which is closed at its end (19). This annihilates the harmful effect of X-rays.
A tab (18) makes it possible to distinguish the radioactive electrode when connected. (Fig 3)
The characteristic of the diode is shown in fig 4.
V3 represents the voltage at the terminal of the qravito -diode in open circuit. (I = V/R and infinite resistance)
The law is linear for low currents (α = 1/R)
In a closed circuit, the operating point is located at (20).
When a gravitational wave is detected, one is located at (20). passes through the diode which then operates on point (21).
The potential difference V between these two operating points must be -.multiplied and testifies to the passage of a gravitational wave.
Fig. 1 represents the gravito-diode seen from above
Fig. 2 represents the gravito-diode seen in section.
Fig. 3 represents the protective envelope of the gravito-diode
Fig. 4 represents the operating characteristic of the gravito-diode. (E transmission requires more energy than R reception)