RO134640A0 - Analgesic chamber reducing: pain, tiredness, depression, sleepiness, nervousness, anxiety, stress, dizziness, noise and making us more lucid - Google Patents

Abstract

The invention relates to an analgesic chamber which reduces pain, fatigue, depression, sleepiness, nervousness, anxiety, stress, dizziness, noise and makes us more lucid. According to the invention, in a first embodiment, the chamber consists of an inner cylinder (1), suspended in a vacuum layer (6) inside the outer cylinder which may consist of a dome (2), a cylindrical wall (4) and a foundation (3), the inner cylinder (1) resting on a foundation (3) on at least one insulator (5), which may be a multilayer one, the vacuum layer (6) may be obtained by means of at least 1...2 vacuum pumps, such as an air-blower (9) of 800 mb, of high flow, and a 200-0 mb high vacuum pump (10), it may be provided with a pressure switch which actuates an air regulator, which may stabilize and adjust a pressure between 700 and 1000 mb, and, in order to eliminate the acoustic/thermal bridge, the intake of air needed for ventilation, takes place through a continuous hose coil (7), the turns of which are placed on some spacers (8), or clamps (12), the hose (7) being attached to a plate (13) which is attached to the cylinder (1) by means of a pipe (14) which sucks the air from the enclosure by means of a vacuum pump (9) with high flow and the coil of the hose (7) is placed in a pressure-resistant housing (15) and attached to the outer cylinder (4), the inner cylinders (1) and the outer cylinders, respectively, may be provided with one or more portholes, not figured, which are shown by (64) in Fig. 13 or Figures 16, 17 and 18, so that the inner porthole is isolated from the outer porthole by a vacuum layer, and it is provided with at least one pair of non-figured doors; the inner door attached onto the inner cylinder, provided with sealed gaskets which opens to the inside and to the outer door which is similar to the inner door, but which opens to the outside, made with technologies known per se, such as those represented in (83, 84 and 92, 93 ).

Description

Analgesic chamber

What it reduces: pain, fatigue, depression, drowsiness, nervousness, anxiety, stress, dizziness, noise and makes us more lucid

The present invention relates to a room / building / dwelling very well soundproofed (anechoic) from the outside / inside, intended for the treatment of weather-sensitive people, fibromyalgia patients, chronic fatigue, chronic pain, with weather phobia, spring asthenia, for persons varsnice, terminally ill, for Alzheimer's patients in depression or hysterical seizures. It can be used for recreation and well-being, where you can work quietly, to increase efficiency and creativity, to inspire poets, painters, composers, to rehearse singers, fiddlers, etc. without disturbing the silence of the neighbors. The analgesic chamber insulates sound, thermally, in some conditions it also isolates vibration. Can be used for industry, shooting range, science, or recording studios.

It is a vacuum-suspended chamber, which rests on isolated legs. It is a double bottle whose walls do not touch, which can have any shape that can withstand 1 / 1.5 bar. It is thousands of times better insulated than a soundproof room with 2-3m insulation on all sides.

The anechoic chambers that insulate the sound are known, but they are difficult to build, they are extremely expensive, very heavy, with 3 meters thick walls, and it uses the feeling of the room in the room. There are at least 3 massive concrete chambers, smaller and smaller and insulated with mineral wool between them. They cannot stop frequencies lower than 50-30 Hz. Why is sound so difficult to isolate? Because sound passes through matter, but does not pass through vacuum. If we want to build a classic room where a microwave oven fits (0.5x0.5x0.5m), the final size was 6.5 x 6.5x 6.5 meters!

In all current homes and buildings, regardless of the materials used in construction, infrasound penetrates the walls and is more intense indoors than in the field, due to the effects resonate and reverberation (of sounds and infrasound). It is known that many natural phenomena such as lightning, earthquakes or volcanic eruptions produce many infrasounds. Dr. Vladimir Gavreau discovered many such phenomena in the 1960s.

Sound insulators made of continuous materials are also known. The submarines are soundproofed with a 15 cm layer of solid rubber. If the layer was like a roll of toilet paper (made of many thin, crumpled sheets), then the thickness of the 15 cm layer could be reduced.

The technical solution that the invention solves is the sound and thermal insulation, in a coating of only 1 - 20 cm between inside and outside. Although it is possible a meter or even more. Theoretically under ideal conditions, it would allow extreme temperatures. Minus 100 degrees or plus 100 degrees outside, and inside you can live at 20 degrees. It would also theoretically reduce outside noise by 200 decibels. These great ones would be possible with a layer of 10 cm of intense vacuum.

The problem that the invention solves is the realization of an anechoic chamber with coating or vacuum film, necessary for the treatment; meteosensitive, children crying for no reason, 2020 00525

20/08/2020 to people in nervous crisis and those who are hospitalized in neuropsychiatric hospitals, capricious people, relaxation and increasing occupational efficiency. It is basically a room with double walls, which do not touch, insulated from each other with vacuum, which aims to insulate from the entire frequency band, including infrasound. Theoretically, if the vacuum is absolute and there is no acoustic bridge (it would levitate magnetically), you should shoot with the cannon outside, and there should be absolute silence inside. Theoretically, if we set it up in the center of a nightclub, at a rock concert, near the runway of jet planes or launching missiles that go on the moon, there should be absolute silence inside. If the efficiency is one hundred percent, it should reduce 200 decibels of noise, including the loudest infrasound. As it is impossible to make it perfect, then the acoustic attenuation should be reduced proportionally. So the best possible materials should be used.

Absolute vacuum is the best sound insulator. Concrete, glass, metal, stone, wood, are the leaders. The principle is simple: sound propagates through a material. If the material (air) is missing, the sound is not transmitted. Because in a vacuum, there is no air.

The novelty of this invention is the sound / infrasonic, thermal and vacuum vibration insulation and the treatment of certain categories of patients. It can be used by the army, police or science.

For thousands of years, people have been complaining about weather sensitivity and the suffering caused by severe weather. We found that it is generated by infrasound and low frequency sounds (ILNF). The problem is that Infrasound can travel 1600 km without loss and according to NASA, can cross the mountains without decreasing the intensity. Vladimir Gavreau's research has shown that no known material can stop infrasound. Concrete bunkers, tanks, subway galleries or thick walls of reservoir dams can not stop the passage of infrasound. How can such horror be explained? Sounds circulate more easily through solids than through air. Through the air the sound circulates with 340 m / s And through concrete, steel, granite, glass 4000 6000 m / s

Hundreds of years ago people were protected by walls and fortresses, which cost a lot of money. Now we could invest in protecting people through vacuum film. Our health needs this fortification. global warming brings more infrasound, which makes the population sick.

Virtually all materials transmit infrasound. To insulate an enclosure from a thermal and acoustic point of view, it must be surrounded on all sides by a vacuum film. Absolute vacuum does not contain air and therefore has no one to carry the sound.

21 non-limiting construction variants are presented, and the construction elements of each variant can be mounted in different combinations, in multiple construction variants.

The analgesic chamber, in a first embodiment, according to the invention, removes the above disadvantages by the fact that it consists of an inner bottle, which is insulated with a film / vacuum layer (as a contour), is placed on some insulators that can be made of hundreds / thousands of thin layers, which are placed on the reinforced concrete foundation, on which the outer bottle rests, which can be made of bricks / blocks of stone or concrete and the dome attached to the cylindrical wall, provided with at least one pair of doors not shown; interior door attached to 2020 00525

20/08/2020 the inner cylinder, provided with sealed gaskets that open on the inside and the outer door similar to the inner door, but which opens on the outside, made with known technologies, and the vacuum is made with the help of high vacuum pump, and 800mb vacuum pump with high flow, each drawing air through a directional valve, and to eliminate the acoustic / thermal bridge the air inlet, necessary for ventilation, is introduced through the spiral of continuous hose, coils that are placed on some spacers, the hose is attached to a plate that is attached to a pipe, which is attached to the inner cylinder, the vacuum insulated installation that forms in a pressure resistant housing, and attached to the outer cylinder, the air inlet installation, is provided with a pressure switch which operates an air regulator, which can stabilize and regulate a pressure between 700 and 1000 mb, regulator which is provided with the low flow air strap, necessary for the minimum oxygen for s survival, in the inner cylinder, the inner / outer cylinder can be provided with one or more double portholes not shown, so that the inner porthole is isolated from the outer one by a vacuum layer. The analgesic chamber, in the second embodiment, is similar to the first variant, but the inner cylinder has a different shape, which is suspended in a vacuum, inside the outer cylinder, and the insulator is inside a cylindrical housing, which is attached to the outer cylinder, and the inner cylinder rests on at least 3 insulating rows by means of a rod / arm / beam and an insulating end, the outer cylinder is composed of a dome, cylindrical masonry and reinforced concrete foundation, which has at least two holes, for concrete saving. The analgesic chamber, in the third constructive variant, is similar to the second constructive variant, but the foundation has an inclined plane, on which the insulator is placed uncle against the outer bottle, and due to this placement, allows a better balance. of the inner cylinder which sits on at least three insulating rows. The analgesic chamber in the fourth constructive variant similar to the first three variants, is made of the inner cylinder, which is inside the outer cylinder and rests on a stack of insulators, and due to this shape, can be used to make a soundproof submarine. . The analgesic chamber in the fifth constructive variant is similar to the previous four variants and is made of the inner bottle, which is suspended in a vacuum in a tulle / cave, resting on at least three insulators that are dug into the rock, and due to this positioning allows balance of the inner cylinder. The analgesic chamber in the sixth embodiment is similar to the first two variants, except that the inner cylinder rests on the foundation, through a magnetic levitation installation / mechanism, itself known in the art, and due to this technology, the cylinder the interior no longer has physical contact with the foundation and the insulators are no longer an acoustic bridge, and the air ventilation is made by means of a hose spring, which is suspended in a vacuum, one end of the spring hose, is attached to a housing resistant to external pressure, and another end of the hose is supported by a pipe that is attached to a rod / beam and due to this technical solution, has no contact with the outer cylinder but only with the inner cylinder which is insulated from the outside. The analgesic chamber in the seventh embodiment is similar to variants one, two and six except that the inner cylinder rests on a magnetic levitation mechanism specific to magnetic trains known in the art, and due to this technical solution, the inner cylinder no longer has physical contact with the outer cylinder by means of insulating strings and thus will increase the degree of sound / thermal insulation. The analgesic chamber in the eighth embodiment is similar to the first variant, in which the inner bottle is located in 2020 00525

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inside the outer cylinder, between the two chambers there is a film / vacuum layer, and the inner chamber rests on at least 3 insulators, which by their position ensure a stability of the inner cylinder, the constructive variant that can be adapted to the submains. The analgesic chamber in the ninth embodiment is similar to variant eight, with the difference that between the inner and outer cylinder, there is the shredding of rubber insulation materials, silicone, etc.), which from this shredding, the contact between the two cylinders is interrupted. , the outer cylinder being placed on a support. The analgesic chamber in the tenth embodiment is similar to variants two and three but due to the size and weight of the inner bottle rests on several insulating strings that can be equidistant, symmetrical, conical or parallel to the outer bottle.

Advantages of the invention

A first advantage of the room is that it can be placed 1-2-3 or in windows in the form of portholes. No windows could be placed in a classic anechoic chamber.

The invention has the following advantages: it can be built from sizes ranging from a few centimeters to the size of a cathedral or even a stadium. So you can make a room the size of a cup, where we can insert a mouse, which protects it from a noise of 200 decibels. It can be built perfectly transparent, it can be mounted in homes or offices. A room where a man can enter can be made in the form of a cylinder 2 meters long and one meter in diameter, even smaller. The constructive variants from figure 6, 9 and 10 can be adapted for the construction of silent, soundproof submarines.

The following are several embodiments of the invention, non-limiting in connection with Figures 1 to 26, which represent:

FIG. 1, axial section of an analgesic chamber, in a first embodiment, according to the invention, which takes the place of the operating scheme (the proportions of each element can be increased or decreased, and therefore the volume of the outer bottle can be as a cathedral or 3 cubic m)

FIG. 2, clamp for holding two hose turns, useful in the coils in fig. 1, which has a weak contact with the hose (7)

- Fig. 3, two spacers (8) which are mounted between three hose turns (7)

FIG. 4, coil coil, the clamps (12) are mounted on the hose (7)

- Fig. 5, axial section of an analgesic chamber, in the second embodiment, according to the invention, where the proportions of each element can be increased or decreased, and therefore the volume of the outer bottle can be as large and the diameter of multilayer insulators can have much diameter bigger. In the version on the right (B) the insulators (20) can be parallel to the outer cylinder, and can count at least three pieces. And in the version on the left (A), the insulators (26) are mounted at a certain angle to the cylinder outer, and can be in a number of at least 3 pieces, arranged! equidistant or non-equidistant.

- Fig. 6, section with a vertical plane from an analgesic chamber, in the third embodiment, according to the invention, the variant which, by removing some elements, can be adapted for a submarine.

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FIG. 7, section with a vertical plane from an analgesic chamber, in the fourth embodiment, according to the invention, but the outer bottle (32) and the housing (35) of the insulators (36) are dug into the rock, which may be a tunnel or a cave.

FIG. 8, axial section of an analgesic chamber, in the fifth embodiment, according to the invention, in the right variant (D) the inner chamber rests on magnetic levitation, and in the left variant (C) the magnetic levitation is the technology used for trains .

FIG. 9 section with a vertical plane from an analgesic chamber, in the fifth embodiment, according to the invention, the variant which, by removing some elements, can be adapted for a submarine

FIG. 10, section with a vertical plane from an analgesic chamber, in the sixth embodiment, according to the invention, the variant which, by removing some elements, can be adapted for a submarine

FIG. 11 section with a horizontal plane of an analgesic chamber, in the second embodiment, according to the invention shown in fig. 5, where it is observed how the housings (21) of the insulators (20) are arranged around the circular wall (19) which can take over the entire weight of the inner chamber (16)

FIG. 12 sections with a vertical plane from an analgesic chamber, in the seventh embodiment, according to the invention, where it is observed how the dome (59) can be mounted on the foundation (62) through the mortar (63)

FIG. 13, section with a vertical plane of an analgesic chamber, in the eighth embodiment, according to the invention

FIG. 14, plate-type insulating plate, made of insulating materials such as rubber, and on its surface is provided some protrusions, which allow a contact on a small surface with the neighboring plate. By reducing the distance between inner diameter and outer diameter, large diameter insulators and small surface can be obtained, useful when the height of the multilayer insulator is high, and thus greater stability is obtained.

FIG. 15, plate-type insulating plate, made of insulating materials such as rubber, and on its surface is provided some cutouts, which allows a contact on a small surface with the neighboring plate. It has the advantage that it has a small surface and yet a large diameter, which allows stability in making multilayer insulators. By reducing the distance between the inner circle and the outer circle, large diameter insulators and small surface can be obtained, useful when the height of the multilayer insulator is high, and thus a higher stability is obtained.

FIG. 16, vertical section of a double cylindrical porthole, where the inner cylinder (67) and the outer cylinder (68) have a cylindrical collar for resistance

FIG. 17, vertical section of a hemispherical double porthole, insulated inside with vacuum

FIG. 18, vertical section of a double, single porthole, which is vacuum insulated

FIG. 19, axial section of an analgesic chamber, in the ninth embodiment, according to the invention, where both the inner and the inner cylinder are removable, provided with flanges, gaskets, and at least one pair of doors.

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- Fig. 20, axial section of an analgesic chamber, in the tenth embodiment, according to the invention, is exactly as in Figure 19, except that it is not removable, the porthole places can be seen, and several insulators are provided.

- Fig. 21, vertical section of an analgesic chamber, in the tenth embodiment, according to the invention, is the chamber of FIG. 20, only it's another section.

FIG. 22, vertical section of an analgesic chamber, in the ninth embodiment, according to the invention, is the chamber of fig. 19, only it's another section.

- Fig. 23, cylindrical multilayer insulator, with many types of plates, made of different materials mounted interspersed, which are wrapped and vacuumed

- Fig. 24, conical multilayer insulator, in which the plates are of the same material, but their sizes are such that they come out conical

- Fig. 25, vertical section of an analgesic chamber, in the eleventh embodiment, according to the invention, is the variant of figure 22, with the difference that the legs / insulators 103 have provided some reinforcing rods (104), and the insulator extends to the bottle interior.

- Fig. 26, page 20, vertical section of a hose coil, vacuum insulated

The analgesic chamber, in a first embodiment, consists of an inner cylinder (1), suspended in the vacuum layer (6) and inside the outer cylinder which may be composed of the dome (2), the cylindrical wall (4), and the foundation (3), the inner cylinder (1) rests on the foundation (3) on at least one insulator (5), which can be multilayer, the vacuum layer (6) can be obtained with the help of at least 1-2 pumps vacuum, such as the 800mb high flow vacuum pump (9), and the high vacuum pump (10) 200 - 0 mb, each being able to draw air through a directional valve, can be provided with a pressure switch that operates a regulator of air, which can stabilize and adjust a pressure between 700 and 1000 mb, regulator that is provided with the low flow air strap, necessary for minimum oxygen for survival, in the inner cylinder, where it can be provided with the box (11) full of cotton wool to eliminate noise and to eliminate the acoustic / thermal bridge the air inlet (necessary for ventilation), is inserted through the spiral of continuous hose (7), coils that are placed on some spacers (8), or clamps (12), the hose (7) is attached to a plate (13) which is attached to the cylinder (1 ) by means of the pipe (14) which draws the air from the enclosure, by means of the high flow vacuum pump (9), and the spiral of the hose (7) is in the housing (15) with vacuum, in the form of a cup, pressure resistant and attached to the outer cylinder (4), the inner (1) and outer (2,4) cylinders can be provided with one or more double portholes not shown, which are shown in fig. 16,17,18 or (64), so that the inner porthole is isolated from the outer one by a vacuum layer, and is provided with at least one pair of doors not shown; the inner door attached to the inner cylinder, provided with sealed gaskets that open on the inside and the outer door similar to the inner door, but which opens on the outside, made with known technologies, such as those represented in (83.84 and 92.93) . The Philips 2000 - 2200 w vacuum cleaners with very high flow rates can be used as vacuum pumps 800 mb, so you can save money by using an existing vacuum cleaner. The housing (15) is resistant to external pressure, and can have the shape of a cup / pot and due to this shape, the final volume to be vacuumed is reduced. The housing (15) can be mounted in other areas such as the upper ones, provided that the pipe (14) is attached to the inner cylinder, not the outer one. The box (11) is filled with cotton wool to 2020 00525

20/08/2020 reduces the noise made by the incoming air. The wall (4) and dome (2) can be constructed of reinforced concrete, hard brick masonry, or compression-resistant stone blocks. The exterior will be covered with layers of varnish or fiberglass, to reduce porosity and save electricity. Consideration will be given to minimizing the total vacuum volume. If the thickness of the vacuum layer is chosen, for example 10 cm, and there are areas with a greater distance such as between the insulators (5) then in those areas will be placed without forming sound bridges concrete filling or similar, so that the vacuum volume should be smaller. At least one solenoid valve, radio-controlled or remote-controlled, shall be fitted to the outer cylinder to remove the vacuum required before opening the doors. Also the vacuum pumps can be controlled remotely, ie from inside or outside. The pressure regulator is indicated to ensure the most stable possible pressure, necessary for the comfort of the people inside.

The analgesic chamber, in the second embodiment, the inner and inner cylinder can have any three-dimensional shape, can be made of any material, fixed or removable, positioning and number of insulating strings, can be mounted in different combinations, coil housings , double doors, double portholes, can be mounted in different combinations, leaving at the discretion of the construction engineers infinite constructive variety, so that the operating principle remains the same.

The analgesic chamber, in the third embodiment (B), the inner cylinder (16), is immersed in the vacuum layer (18), inside the outer cylinder, which is composed of the dome (17), the cylindrical masonry (19) and the foundation (23) containing the holes (22) for concrete saving, and the inner cylinder (16) rests on at least 3 insulators (20) that can be cylindrical, multilayer and parallel to the cylindrical masonry (19) that can be equistant , and the insulator (20) is immersed in the vacuum layer (18) located in the housing (21) which can be cylindrical, rectangular, hexagonal, conical, etc., which is attached to the foundation (23) and masonry (19) the insulator multilayer (20) supports the cylinder (16) by the end (24) attached to the rod / arm / beam (25) which is attached to the cylinder (16), and due to this technical solution, the inner cylinder (16) is insulated from the outer cylinder by the insulator (20) which can have a high height, and a small surface. This constructive variant having the advantage that the insulators (20) can be made with high height and will insulate better than other insulators with lower height. The diameter of the insulators (20) will be chosen to ensure the stability of the inner cylinder.

The analgesic chamber, in the fourth constructive variant (A), is similar to the constructive variant (B), with the difference that the foundation (24) can have an inclined plane, on which the insulator (26) which can be multiple layered, is placed at an angle to the outer cylinder and the cylindrical masonry (19), and due to this placement, allows a better balance of the inner cylinder (16) which sits on at least three insulating rows (26), which can be arranged around masonry (19) equidistant or non-equidistant.

The analgesic chamber, in the fifth constructive variant, similar to the previous constructive variants, is made of the inner cylinder (30), which is inside the outer cylinder (28) separated by a vacuum layer (29) and rests on a stack of insulators, multilayer (31) and due to this shape and the elimination of some components, it can be adapted for the realization of a soundproof submarine.

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The analgesic chamber, in the sixth constructive variant, similar to the first constructive variants where the inner cylinder (34) is suspended in a vacuum (33), which is in the tunnel / cave (32) containing a sealed end provided with a double door , which can be built at the entrance to the tunnel, and a second sealed end similar to the first which can be built at the end of the inner cylinder (34) which rests on at least 3 insulators (36) which can be multilayer, which are located in at least 3 holes (35) that are dug in the rock, and, due to this positioning allows balance of the inner cylinder (34). The advantage of this technical solution is that abandoned tunnels or caves can be used.

The analgesic chamber, in the seventh constructive variant (D), similar to the first constructive variants, but with the difference that the inner cylinder (37) is supported on the foundation (40F), by means of a magnetic levitation installation / mechanism (42), in known in the art, and due to this technology, the inner cylinder (37) no longer has physical contact with the foundation (40F), and the insulators are no longer an acoustic bridge, but the ventilation is done by means of a spring in the hose (43) , which is suspended in a vacuum (38), one end of the spring hose (43) is attached to a housing (41) resistant to external pressure, and another end of the hose (43) is supported by a pipe (45) which is attached to a rod / beam (40T) and due to this technical solution, the inner cylinder no longer has physical contact with the outer cylinder through the insulating strings and thus will increase the degree of sound / infrasonic / thermal insulation.

The analgesic chamber, in the eighth constructive variant (C), similar to the constructive variant (D), but with the difference that the installation / mechanism of magnetic levitation (44) is of a different type than the one from (42), is the one used to magnetic trains and allows better stability.

The analgesic chamber, in the ninth constructive variant, similar to the first constructive variants, with the difference that compared to the constructive variant from fig. 6 is that the inner chamber (48) rests on the outer chamber (46) by means of at least 3 insulators (49) that can be multilayered, and due to this constructive solution, it can be adapted for the construction of a sound / infrasonic / thermal insulated submarine .

The analgesic chamber, in the tenth constructive variant, similar to the first constructive variants, the inner cylinder (50) rests on the outer cylinder (52) by means of a shred (53) of insulating materials such as rubber, silicon, etc. with granules between 1 -5 mm, which has a high coefficient of sound insulation, and the support (54) can be used for high stability, this constructive variant can be adapted for submarines.

The analgesic chamber, in the eleventh constructive variant, similar to the first constructive variants, the inner cylinder (55) which can be spherical or cylindrical, is suspended in vacuum (56) in an outer cylinder (57), and the insulators (58) can be arranged equidistantly, can be identical or different, and can take the weight of the inner bottle (55)

The analgesic chamber, in the twelfth constructive variant, similar to the first constructive variants, the inner cylinder (60) is inside the outer cylinder composed of the dome (59) and the foundation (62), which can be attached and sealed by means of mortar or adhesive. (63), and the inner cylinder (60) rests on the foundation (62) by means of insulators (61) which can be multi-layered, the dome (59) having provided non-figured hangers, necessary for installation.

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The analgesic chamber, in the thirteenth constructive variant, similar to the first constructive variants, the dome (63) has attached the transparent three-dimensional dome / porthole (64), similar to the one shown in fig.17, and, due to this positioning, can be used as an observer, and the portholes (65) that can be arranged equidistantly on the dome (63), where the foundation (66) can be similar to that (62).

The analgesic chamber, in the fourteenth embodiment, similar to the first constructive variants, the inner cylinder (79) is removable by at least one row of flanges (82) and is immersed in the vacuum (80) inside the outer chamber (81) which is dismantled by at least one row of flanges (82) and the inner chamber is in balance and supported by at least the insulators at the bottom (85) provided with the access door (84) connected to access door (83) that opens to the outside.

The analgesic chamber, in the fifteenth embodiment, according to the one described in figure 19, the inner bottle will be non-removable, without flanges.

The analgesic chamber, in the sixteenth embodiment, according to the previous variants, the inner cylinder (86) is in the outer cylinder (88) separated by a vacuum layer (87) and the large number of insulators (91) in the lower part and the upper allows it stability and heavy weights, provided with the inner door (93) opening inwards, and the outer door (92) opening outwards, both provided with sealing gaskets and locking systems, not shown.

The analgesic chamber, in the seventeenth embodiment, according to the previous variants, the inner cylinder (100) is inside the outer cylinder (102) separated by a vacuum layer (101), and at least three insulators (105) which are provided with an adjusting screw (106), the insulator housings (103) which can be cylindrical, rectangular, hexagonal, conical, etc., and can be extended to the inner chamber (100) are reinforced by at least two rods / bars ( 104) with the role of stiffening the structure, and the insulators / legs (103) in the upper part are optionally built, with the role of stabilizing the inner chamber (100)

Two-dimensional double cylindrical porthole, in the first constructive variant, on the inner bottle (67) is attached the transparent plate (69), and on the outer bottle (68) is attached the transparent plate (70) and due to the distance between the bottles, a film can be formed / vacuum layer that insulates sound / thermally.

Double and hemispherical porthole, in the second constructive variant, a hemisphere (74) or other three-dimensional shapes are attached to the inner cylinder (71), and the hemisphere (73) is attached to the outer cylinder (72) and due to the distance between the cylinders, it can form a film / vacuum layer that insulates sound / thermal, thus creating a double insulated porthole, which gives an increased visibility.

Double porthole in the third constructive variant, the transparent plate (78) is attached to the inner cylinder (75), and the transparent plate (77) is attached to the outer cylinder (76) and due to the distance between the cylinders, a film can be formed / vacuum layer that insulates sound / heat, thus creating a double insulated porthole.

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The portholes can be fixed or mounted on hinges, and can be used for ventilation and technical inspections.

Sound insulation in the first embodiment, the multilayer sound insulation can be composed of 2 - 20 plates per centimeter (96), which can be in the form of a disc, washer or have or other shapes, are interspersed different / same materials, which can have cuts, embossed or abrasive edges, for a sound contact as bad as possible, which is provided with an upper end (97) and a lower end (99) which presses the insulating pads together with the foil (98) at least two layers, which can be vacuumed and pressed.

Sound insulation in the second embodiment, similar to the first embodiment, the multilayer sound insulation may consist of 2-20 plates per centimeter (95) which may be of the same or different material and interspersed, it consists of the upper end (94) and the lower end (94) and the plates have smaller and smaller dimensions, which form a conical-shaped insulator.

The analgesic chamber, in the eighteenth embodiment, according to all the constructive variants, combinations from all the previously mentioned variants of all the drawn or mentioned forms, all the mechanisms, proportions, installations or constructive solutions proposed or drawn can be used.

The analgesic chamber, in the nineteenth embodiment, according to all constructive variants, some components can be eliminated, and thus can be used for other purposes, for example air ventilation is canceled, and the need for oxygen and fresh air can be obtain with the methods used on submarines, space stations by known methods.

The analgesic chamber, in the twentieth embodiment, according to the previous variants, the inner or outer cylinder, is made of materials that electromagnetically shield, or cover with such materials, and due to the reduction or elimination of electromagnetic smog, in combination with the elimination of sonic smog / infraonic and pressure stabilization, from inside the inner bottle, you get the best environment for spending time, healthy people or those with various diseases.

The hose clamp (12) made of rubber, silicone, felt, etc., has at least 3 triangles on each side, so that the hose (7) has the worst possible contact, and their mounting on the hose can make a spiral of the hose, the clamps (12) being arranged as in figure 4.

Hose spacer, clamps (12) together with spacers (8) made of rubber, silicone, felt, etc., it is possible to make a hose spiral (7), the spacer (8) provided in the lower and upper part, with at least 3 triangles, so that the hose has a bad contact with the hose (7) arranged as in Fig. 4.

Treatment and relaxation method. People are placed in the inner bottle insulated with vacuum for at least a few hours, and thanks to this environment without noise, infrasound, and electromagnetic smog, some people will feel painless, more rested, calmer and more lucid than in the natural environment.

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The vacuum insulated coil is composed of the hose (111) which can be continuous, and the spacers (110) which are also shown in fig. 3, together with the clamps (12) shown in Fig. 2, all insulated in a vacuum (109), which is in the housing (112), to which is attached the pipe (113) which is connected to the hose (111), the plate 108) supports the coil and is attached to the pipe (107) which can be attached to the inner cylinder according to the present invention, due to this technical solution, the sound can only flow through the hose (111) which is recommended to have as many turns as possible, and be as long as possible

The analgesic chamber, in the twenty-first embodiment, according to the previous variants; if the interior room is large enough, the ventilation coils can be removed from the scheme, and therefore, the ventilation can be done from time to time, on the door or portholes (provided with hinges). Example: ventilation can be done once a day, or the oxygen required will be provided by known methods in submarines and space stations. This variant is much more soundproofed than in the variants with two coils, because the acoustic bridges are eliminated.

The shape of the interior and exterior room

The shape of the inner and outer chamber can be any, without restriction. Each form has advantages, and disadvantages, for this reason the shape of the analgesic chamber will be chosen according to these advantages, or disadvantages. Only, if we make it in the shape of a cube, we waste material, if we make the sphere we save material. Some shapes are better for the roof function, in the sense that no snow is deposited.

The best shape is the sphere or the cylinder (like CFR tank, or LPG cylinder of different shapes). But if the architect wants extravagance, he can be inspired by pressure packaging such as be, Coca-Cola, beer can, champagne bottle, mineral water, etc. Removable concrete or plastic domes can be made. The cylinders can be constructed of concrete panels that are joined with screws (as in the subway). The detachable subway tunnel is a very good resistance variant. In this way the domes can be built.

The shape can be chosen according to the architecture, tastes, price, materials used, needs. Technology we find at; cathedrals, furnaces of thermal power plants, dams, or nuclear power plants. Cathedrals offer us a lot of dome shapes. Church builders know a lot of technologies and construction techniques. Fortress towers, seaside lighthouses, and wind turbine pylons, as well

The outer enclosure can be made of metal, and the joints will be made by welding or welding and rivets. Rivets can also be replaced with screws. The parts joined with rivets or screws can be made in such a way that the inner enclosure can be replaced or repaired. So rivets and screws allow disassembly.

They can be made removable (with flanges) or non-removable. The former have the advantage that they can be repaired, the latter having the advantage that they are cheaper. They may also have reinforcing ribs, or rolling rings. They can be made with air ventilation, or with an oxygen cylinder of 2020 00525

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If the analgesic chamber is also built (supported) on four rows of rubber insulators made of continuous material of 50 cm, the final chamber will not be insulated as one that is insulated on all sides with solid rubber 50 cm thick, but will be more isolated 1000 - 6000 times better. The surface that comes in contact with the outside will be 1000 - 6000 times smaller than in the classic class.

Commercial variants will have to be built as a compromise between quality, price and utility.

It is obvious that masonry and concrete are porous and allow air to pass through, but this can be stopped by applying varnishes, primers, paints, enamels or other substances. Coating with a layer of fiberglass would be a durable solution.

A small apartment room is 2.82m x 3.63m x 2.5m high, ie 10.2 square meters, 25 cubic m and the surface on all sides 52.6 square meters. If we soundproof it with a sponge or insulating felt 50 cm thick, on all sides: ceiling, floor, window and door, there are still: 1.82x2.63x1.5 m high. That is 4.3 square meters, 6.85 cubic meters, and the insulation has contact with the outside of 52.6 square meters. If we intend to build an analgesic chamber, of comparable dimensions, and if the insulators of the chamber would have a length of 50 cm, and the sound insulation would be continuous and not sliced it would still be more soundproof 1000 - 5000 times better (a 1000 decibels is not understood). The surfaces that come into contact with the outside are 1000 - 5000 times smaller. I estimate that the slice of the insulator even if it is made of the same material, the sound insulation would be 60,000 - 300,000 times better than the classic insulation of the room. In this case, the sound enters through 52.6 sqm and in the case of the analgesic chamber the surface is 500 cm square (0.05 sqm), ie 1052 times the smaller surface. But if it is decided to build a smaller and lighter room, the surface is 5000-6000 times smaller. In the case of classic insulation, it is impossible to mount on the walls or ceiling, 1000 layers of insulation without being glued together.

I estimate that the speed of sound will decrease due to slicing and wrinkling, the material 50-60 times. The fact that the insulator is discontinuous, and sectioned 1000 - 2000 times, the insulation will be much better. Why is sliced material more insulating than continuous? Because it has no direct atomic bond (atoms are not bonded together) Materials touch from place to place due to striations, ribs and lack of glossy surfaces.

Several constructive models can be made, based on the same principle. Depending on the performance of the chosen vacuum pump, the size between the two chambers will be chosen, or vice versa depending on the chosen materials and the construction type, the thickness of the vacuum layer and the capacity of the vacuum pump will be dimensioned. The thickness of the vacuum layer is recommended to be identical on all sides, to follow as a contour both the outer enclosure and the inner enclosure. The thickness of the vacuum layer is chosen depending on the desired performance, but also on the materials used. For example, in the case of masonry, the distance must be greater, due to the precision with which it can be built. A 20cm layer would insulate well, but requires higher power consumption at the vacuum pump. To obtain the same insulation, we choose either intense vacuum or the thickness of the larger vacuum layer.

The materials will be chosen depending on the price, the price of labor, the preferences of the beneficiary, the size of the room, earthquake durability, total or opaque transparency, the number of portholes, 2020 00525

20/08/2020 or other. The materials of the outer enclosure will be chosen from those that resist the pressure, and those from the inner enclosure will choose those that resist the tension. If high performance is desired, the pump that can make intense vacuum will be chosen and the enclosures will have to be built to withstand at least 1.5 bar (1 bar working pressure and 0.5 bar resistance reserve for operational safety). The outer enclosure will be 1 bar outside and 0 bar inside, and the inner enclosure vice versa. A bar inside and zero outside. The forces will be huge, and the resistance engineers must calculate to withstand at least 15 tons per square meter. Pressure that will be mandatory tested and certified over time in type, just like LPG or Oxygen cylinders. Enclosures must at all times have maximum operational safety, such as a submarine. Different pressures can be used for material savings. Inside 700 mb (similar to the pressure at 3000m altitude) and the pressure of 500mb vacuum pressure. There is the advantage that there are beneficial effects, in the sense that some people feel better at such pressure, and the disadvantage that pressurization and depressurization last 20-30 minutes, which is dangerous in case of fire.

The inner enclosure will be made as light as possible. The heavier the supports, the more numerous they will be and they will transmit more sound inside. Metal does not bring more security in this case. LPG cylinders are made of steel for fire resistance. I think a bottle of recycled PET is a low cost solution.

The drawings are made for the integration of the clerk, and the proportion between the sets may be different in reality. All sizes and proportions will be chosen, depending on needs, price, materials or performance. Therefore, the enclosures can be larger, or taller, the legs can have other proportions, as well as the entrance or exit rooms as ventilation.

The exterior chamber will be made of materials with high compressive strength such as: reinforced concrete, metal, fiberglass, polypropylene, polycarbonate, PMMA, Plexiglas, stiplex, glass (can be reinforced with bulletproof or anti-burglary foil), duplex glass ,

The inner chamber will be made of stretch-resistant materials such as: PET, metal, polypropylene, polycarbonate

Insulating pads / plates

The infinite variety of dimensional models can be made

Insulating boards / discs insulate on the following principles: the thinnest layers, the smallest surface, the thickest layer, the intercalation of different materials with different properties and densities, the contact between the discs as bad as possible (they must be as matte as possible and they are not shiny, as porous as possible, as wrinkled as possible and full of ribs and striations that prevent touching the entire surface) and the cuts must be made so that the neighboring discs touch on a small surface and the sound is forced to circulate in zigzag zag or spiral. The sound should not be allowed in any form to circulate in a straight line, because the length would be much shorter than in zig zag or spiral. For example, sound passes much harder through a one meter material than a 5 cm one.

Insulating discs are as thin as possible and can be made of the following materials: sound insulators of any kind, felt, rubber, cork, sponge, carpet, canvas, rubber canvas, gauze or 2020 00525

20/08/2020 cotton sieve, cleansing diskettes, rubber grill, toilet paper, paper towels, velvet, velvet cloth, any material that has antiphonic properties. The number of insulating boards can be 5 - 20 pieces per centimeter. If the insulators are 50 centimeters long, then the total number would be 1000 pieces. The length of the insulators is chosen as long as possible, depending on the budget or the space where it is mounted. Between 2 and 20 different materials can be used, which can have different thicknesses and densities. Between two pieces of rubber is inserted a plate of felt, canvas, between two pieces of cork is inserted a layer of velvet. Each material will attenuate other frequencies.

The insulating ring / washer can be rubber wrinkled with perforations or it can be made of a braid of rubber threads or having the drawing in figure 14.15 with embossed shapes, so that the contact is as bad as possible.

Shape of insulating discs Multilayer sound insulator

If high sound insulation is desired, then the height of the disc stacks must be high. For good stability the washer shape is best. The model in Figure 14.15 is a good example.

Insulating plates / discs can have any shape, and can be: circle, washer, square, hexagon, pentagon, octagon, etc. If the bottle is very heavy, it will be supported by a sufficient number of circular legs / insulators or by means of long strips, along the entire length of the chamber. These will be calculated to be able to support the entire weight.

The advantage of this type of sound insulation, in which the plates are gravitationally pressed, is that materials can be used that normally cannot be used.

The plates / plates will be chosen depending on the weight of the inner chamber, the costs, or the performance. Insulating plates must be pressed with a weight equal to or greater than the weight that must support them in operation, then wrapped with at least two layers. Then keep it vacuumed until use.

Support legs / support insulation

The number of insulating legs can be: 3, 4, 6 or n, and they will be arranged in such a way that the outer chamber and the inner chamber do not swing. The legs can be cylindrical, conical or rectangular.

Connecting to utilities

The supports, pipes and wires that pass through the vacuum must be as long and as thin as possible. The cables that cross the vacuum will be made of silver. The ducts that absorb the air inside, will be positioned on the ceiling in summer and on the floor in winter. This is how heat or cold is drawn. The hose must be as long as possible and positioned as winding as possible. The air in it and the rubber from which it is made are acoustic bridges, through which sounds / infrasounds can enter.

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To create the supreme chamber, several conditions must be met: absolute vacuum, without any acoustic bridge. Absolute vacuum cannot be obtained, and it is difficult not to have any acoustic bridge. This means that the camera must also levitate magnetically, and cannot be connected to utilities, because any pipe is an acoustic bridge. Electricity, internet and telephony can be transmitted wirelessly, light can be transmitted through portholes. Electricity can be introduced inside by strong light, which is projected on a solar panel inside. The thickness of the vacuum layer is recommended to be equal on all sides.

Ventilation scheme of the inner cylinder

For operational safety, two pumps / blowers can be used to ventilate the inner cylinder, which will operate in parallel. Sensors can be installed to trigger alarms when ventilation is turned off. Separate ventilation pumps / blowers can also be used to increase operational safety. Strips with minimum flow can be mounted, for safety in case the regulator fails and regulating relays for stabilization and pressure regulation.

The inner cylinder can be ventilated at 1000 mb or at lower pressures such as: 800mb, 700mb etc. these pressures, lower than atmospheric pressure, have some advantages and disadvantages. Some people feel better at lower pressures, the inner cylinder can be built with thinner materials, or less resistant (it is subjected to lower pressures) but the air installation will be technically complicated. Pressure switches, pressure gauges / barometers and differential pressure switches will be required to stop the vacuum pump when there is less pressure in the vacuum layer / film. The pressure in the inner cylinder must always be higher than outside. The inner cylinder does not withstand negative pressures, only positive ones, and for this reason safety and interlocking systems will have to be installed.

The portholes

The portholes have a triple role. They can be used as a window, as a place to transmit signals that do not pass through the walls, and to check the correct distance to the indoor / outdoor room. They can be fixed, removable, or open like a window. If a porthole opens, a lot of maintenance or checking can be done through these holes.

The number of portholes are determined only by the strength of the materials, necessity! and the desire of the beneficiaries. These are double portholes, without touching each other. They can be made of glass or plastic. They can be used for internet transmission, telephony, remote controls for operating pumps, or wireless electricity for charging batteries. They can be used for outdoor lighting of the indoor enclosure.

Tunnel / caves

The tunnels may be abandoned, or new ones. They can be directly rock or can be reinforced like subway galleries, with concrete panels that are fastened in screws. The advantages of abandoned tunnels or caves, that there are no costs with the outer bottle, and such a tunnel can be kilometers long. Only a few heads will be built. At the entrance to the tunnel and at the end of the inner cylinder, some resistant heads will be built.

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Access door (s)

The door in the interior room can be similar to the plane, the locking systems can be used simpler variants. It will open inwards, provided with sealing gaskets. When the vacuum pump is switched on, the door must be kept closed. This door can no longer be opened as long as there is a vacuum

The outer door will be similar to the inner one, only it will open on the outside. The doors will be made to withstand 1.5 bar.

The vacuum pump (s) can be: 2000-2200w Philips motor / or vacuum cleaner with very high flow (800mb), blowers (800 mb), oil vacuum pump, intense vacuum 100 mb very low flow.

Air inlet / outlet chambers

Can be equipped with manholes or adjustment mechanisms (valid for the whole room)

Hoses

The hoses will be chosen from materials that are good sound insulators such as rubber or silicone. Those that pull the vacuum will be hard and resistant to compression. And the ventilation ones must be resistant to stretching (pressure one bar inside, and vacuum outside)

Electromagnetic shielding

If the outer casing is made of steel, it can also act as an electromagnetic shield. Many researchers claim that magnetic fields produce weather sensitivity. The choice of metal will be made in such a way as to shield the harmful magnetic fields. Electromagnetic shielding is known to those skilled in the art, and therefore no description is required in the present invention.

Claims (33)

Claims 1. Analgesic chamber, characterized in that an inner cylinder of any shape, which can have a pressure of 700 -1000 mb is suspended in a vacuum, rests on multilayer insulators, in the outer cylinder which may be the same or different shape, which is subjected to atmospheric pressure. 2. Sound / infrasonic and thermal insulation, characterized in that it is made by a film / layer / vacuum contour, which is formed between the inner cylinder and the outer cylinder, which can have any three-dimensional shape. 3. The analgesic chamber, in a first embodiment, characterized in that it consists of an inner cylinder (1), suspended in the vacuum layer (6) and inside the outer cylinder which may be composed of the dome (2) , the cylindrical wall (4), and the foundation (3), the inner cylinder (1) rests on the foundation (3) on at least one insulator (5), which can be multilayer, the vacuum layer (6) can be obtained with the help of of at least 1-2 vacuum pumps, such as the high flow 800mb vacuum pump (9), and the high vacuum pump (10) 200 - 0 mb, each being able to draw air through a directional valve, can be provided with a pressure switch that operates an air regulator, which can stabilize and adjust a pressure between 700 and 1000 mb, regulator that is provided with the low flow air strap, necessary for minimum oxygen for survival, in the inner cylinder, where it can be provided with box (11) filled with cotton to eliminate noise and to eliminate the acoustic / thermal bridge the entrance air (necessary for ventilation), is inserted through the spiral of continuous hose (7), coils that are placed on some spacers (8), or clamps (12), the hose {7) is attached to a plate {13) that is attached of the cylinder (1) by means of the pipe (14) which draws the air from the enclosure, by means of the high flow vacuum pump (9), and the hose spiral (7) is in the housing (15) with vacuum, pressure resistance and attached of the outer cylinder (4), the inner (1) and outer (2,4) cylinders may be provided with one or more double portholes not shown, which are shown in fig. 16,17,18 or (64), so that the inner porthole is isolated from the outer one by a vacuum layer, and is provided with at least one pair of doors not shown; the inner door attached to the inner cylinder, provided with sealed gaskets that open on the inside and the outer door similar to the inner door, but which opens on the outside, made with known technologies, such as those represented in (83.84 and 92.93) . The analgesic chamber, in the second embodiment, according to claims 1 to 3, characterized in that the inner and outer cylinder can have any three-dimensional shape, and can be made of any material, fixed or removable, positioning and number of insulating rows, can be mounted in different combinations, rooms (15), double doors, double windows, can be mounted in different combinations, leaving at the discretion of construction engineers infinite constructive variety, so that the operating principle remains the same. The analgesic chamber, in the third embodiment (B), according to claim 1 to 4, characterized in that the inner cylinder (16) is immersed in the vacuum layer (18), inside the outer cylinder , which is composed of the dome (17), the cylindrical masonry (19) and the foundation (23) containing the holes (22) for concrete saving, and the inner cylinder (16) is 2020 00525 20/08/2020 supports at least 3 insulators (20) that can be cylindrical, multilayer and parallel to the cylindrical masonry (19) that can be equistant, and the insulator (20) is immersed in the vacuum layer (18) that is in the housing (21) which may be cylindrical, rectangular, hexagonal, conical, etc., which is attached to the foundation (23) and masonry (19) the multilayer insulator (20) supports the cylinder (16) by the end (24) attached to the rod / arm / beam (25) which is attached to the cylinder (16), and due to this technical solution, the inner cylinder (16) is insulated from the outer cylinder by the insulator (20) which can have a high height and a small surface. The analgesic chamber, in the fourth constructive variant (A), is similar to the constructive variant (B), and to claims 1 to 5 with the difference that, characterized in that the foundation (24) can have an inclined plane, on which the insulator (26), which can be multiple layered, is placed at an angle to the outer cylinder and the cylindrical masonry (19), and due to this placement, allows a better balance of the inner cylinder (16) which sits on the at least three insulating rows (26), which can be arranged around the masonry (19) equidistant or non-equidistant. The analgesic chamber, in the fifth constructive variant, similar to claims 1 to 6, characterized in that it is made of the inner bottle (30), which is inside the outer bottle (28) separated by a layer of vacuum (29) and rests on a stack of insulators, multilayer (31) and due to this shape and the elimination of some components, it can be adapted to make a soundproof submarine. The analgesic chamber, in the sixth constructive variant, similar to claims 1 to 6, characterized in that the inner cylinder (34) is suspended in a vacuum (33), which is in the tunnel / cave (32) which contains a sealed end with a double door, which can be built at the entrance to the tunnel, and a second sealed end similar to the first which can be built at the end of the inner cylinder (34) which rests on at least 3 insulators (36) which can be multilayer, which are located in at least 3 holes (35) which are dug into the rock, and, due to this positioning allows balance of the inner cylinder (34). The analgesic chamber, in the seventh constructive variant (D), similar to claims 1 to 6, characterized in that, unlike the inner cylinder (37), it rests on the foundation (40F), by means of an installation / magnetic levitation mechanism (42), itself known in the art, and due to this technology, the inner cylinder (37) no longer has physical contact with the foundation (40F), and the insulators are no longer an acoustic bridge, but the ventilation is done by means of a hose spring (43), which is suspended in a vacuum (38), one end of the spring hose (43) is attached to a housing (41) resistant to external pressure, and another end of the hose (43) is supports by a pipe (45) which is attached to a rod / beam (40T) and due to this technical solution, the inner cylinder no longer has physical contact with the outer cylinder through insulating strings and thus will increase the degree of sound / infrasonic / thermal insulation . The analgesic chamber, in the eighth constructive variant (C), similar to claims 1 to 9, characterized in that, with the difference that the magnetic levitation installation / mechanism (44) is of a different type than that of ( 42), is the one used for magnetic trains and allows a better stability. and 2020 00525 20/08/2020 The analgesic chamber, in the ninth constructive variant, similar to claims 1 to 7, characterized in that, unlike the constructive variant of claim 7, the inner chamber (48) rests on the outer chamber (46). ) by means of at least 3 insulators (49) that can be multilayered, and due to this constructive solution, it can be adapted for the construction of a sound / infrasonic / thermal insulated submarine. The analgesic chamber, in the tenth constructive variant, similar to claims 1 to 11, characterized in that the inner cylinder (50) is supported on the outer cylinder (52) by means of a shred (53) of insulating materials such as would be rubber, silicon, etc. with granulations between 1-5 mm, which has a high coefficient of sound insulation, and the support (54) can be used for stability, this constructive variant can be adapted for submarines. The analgesic chamber, in the eleventh constructive variant, similar to claims 1 to 6, characterized in that the inner cylinder (55) which can be spherical or cylindrical, is suspended in a vacuum (56) in an outer cylinder (57), and the insulators (58) can be arranged equidistantly, can be identical or different, and can take the weight of the inner cylinder (55) The analgesic chamber, in the twelfth constructive variant, similar to claims 1 to 6, characterized in that the inner cylinder (60) is inside the outer cylinder composed of the dome (59) and the foundation (62), which can be attached and sealed by means of mortar or adhesive (63), and the inner bottle (60) rests on the foundation (62) by means of insulators (61) which can be multilayered, the dome (59) having provided non-figured hangers, necessary for assembly. The analgesic chamber, in the thirteenth constructive variant, similar to claims 1 to 14, characterized in that the dome (63) has a transparent dome / porthole (64) attached, similar to the one shown in fig. 17, and, due to this positioning, it can be used as an observer, and the portholes (65) which can be arranged equidistantly on the dome (63), where the foundation (66) can be similar to that (62). The analgesic chamber, in the fourteenth embodiment, according to claims 1 to 6, characterized in that the inner cylinder (79) is removable by at least one row of flanges (82) and is immersed in the vacuum (80) which is inside the outer chamber (81) which is dismantled by at least one row of flanges (82) and the inner chamber is in balance and supported by at least the insulators at the bottom (85) provided with the door access door (84) connected to the outside access door (83). The analgesic chamber, in the fifteenth embodiment, according to claim 16, characterized in that the inner cylinder will be non-removable, without flanges. The analgesic chamber, in the sixteenth embodiment, according to claims 1 to 17 and characterized in that the inner cylinder (86) is in the outer cylinder (88) separated by a vacuum layer (87). and the large number of insulators (91) in the lower and upper part allows it stability and high weights, provided with the door of 2020 00525 20/08/2020 interior (93) opening on the inside, and exterior door (92) opening on the outside, both provided with sealing gaskets and locking systems, not shown. The analgesic chamber, in the seventeenth embodiment, according to claims 1 to 6 plus 16,17,18, characterized in that the inner cylinder (100) is inside the outer cylinder (102) separated from the a vacuum layer (101), and at least three insulators (105) which are provided with an adjusting screw (106), the insulator housings (103) which may be cylindrical, rectangular, hexagonal, conical, etc., and may be extended up to in the inner chamber (100) are reinforced by at least two rods / bars (104) with the role of stiffening the structure, and the insulators / legs (103) in the upper part are optionally constructed, with the role of stabilizing the inner chamber ( 100) 20. Three-dimensional porthole, in the first constructive variant, characterized in that the transparent plate (69) is attached to the inner cylinder (67) and the transparent plate (70) is attached to the outer cylinder (68) and due to the distance between the cylinders, a film / vacuum layer can be formed which insulates sound / heat. 21. Three-dimensional porthole, in the second constructive variant, characterized in that a hemisphere (74) or other three-dimensional shapes are attached to the inner cylinder (71) and the hemisphere (73) is also attached to the outer cylinder (72) due to the distance between the bottles, a film / vacuum layer can be formed which insulates sound / heat, thus creating a double insulated porthole, which confers an increased visibility. 22. Window in the third constructive variant, characterized in that the transparent plate (78) is attached to the inner cylinder (75) and the transparent plate (77) is attached to the outer cylinder (76) and due to the distance between the cylinders, a film / vacuum layer can be formed that insulates sound / heat, thus creating a double insulated porthole. 23. Sound insulation, characterized in that a system of discontinuous materials, with the help of thin sheets superimposed, the boards can be whole or perforated, can be smooth or wrinkled, so that the contact between the two materials is as weak as possible. 24. Sound insulation in the first embodiment, characterized in that the multilayer sound insulation may consist of 2-20 plates per centimeter (96), which may be in the form of a disc, or have or other shapes, are interspersed differently / the same materials, which may have cuts, embossed or abrasive wrinkles, for a sound contact as bad as possible, which is provided with an upper end (97) and a lower end (99) which presses the insulating pads together with the foil (98) at least two layers, which can be vacuumed and pressed. Sound insulator in the second embodiment, similar to claim 23 and 24, characterized in that the multilayer sound insulator can be composed of 2-20 plates per centimeter (95) which can be of the same or different material and interspersed , consists of the upper end (94) and the lower end (94) and the plates have smaller and smaller dimensions, which form a conical insulator. The analgesic chamber, in the eighteenth embodiment, according to all claims, characterized in that combinations of all variants of 2020 00525 can be used. 20/08/2020 above of all drawn or mentioned shapes, of all mechanisms, proportions, installations or constructive solutions proposed or drawn The analgesic chamber, in the ninth embodiment, according to all claims, characterized in that some components can be removed, and thus can be used for other purposes, for example air ventilation is canceled and the necessary oxygen and fresh air can be obtained with the methods used on submarines, space stations by known methods. The analgesic chamber, in the twentieth embodiment according to claims 1 to 27, characterized in that the inner or outer cylinder is made of materials that electromagnetically shield, or cover with such materials, and due to the reduction or the elimination of electromagnetic smog, in combination with the elimination of sonic / infraonic smog and pressure stabilization, from inside the inner cylinder, the best environment for spending time, healthy people or those with various diseases is obtained. 29. Hose clamp, characterized in that the clamp (12) of rubber, silicone, felt, etc., has at least 3 triangles on each side, so that the hose (7) has the worst possible contact, and their mounting on the hose can make a hose spiral, the clamps (12) being arranged as in figure 4. 30. Hose spacer, characterized in that the clamps (12) together with the spacers (8) made of rubber, silicone, felt, etc., can make a spiral hose (7), the spacer (8) provided at the bottom and the upper one, with at least 3 triangles, so that the hose has a bad contact with the hose (7) arranged as in fig 4. 31. Method of treatment and relaxation, characterized in that people are placed in the inner bottle insulated with vacuum for at least a few hours, and thanks to this environment without noise, infrasound, and electromagnetic smog, some people will feel painless, more rested , calmer and more lucid than in the natural environment. 32. Vacuum insulated coil, characterized in that the coil is composed of the hose (111) which can be continuous, and the spacers (110) which are shown in FIG. 3, together with the clamps (12) shown in Fig. 2, all insulated in a vacuum (109), which is in the housing (112), to which is attached the pipe (113) which is connected to the hose (111), the plate 108) supports the coil and is attached to the pipe (107) which can be attached to the inner cylinder according to the present invention, due to this technical solution, the sound can only flow through the hose (111) which is recommended to have as many turns as possible, and be as long as possible The analgesic chamber, in the twenty-first embodiment, according to claims 1 to 32, characterized in that, if the inner chamber is sufficiently voluminous, the ventilation coils can be removed from the scheme, and therefore the ventilation it can be done from time to time, on the door or portholes provided with hinges. Example: ventilation can be done once a day, or the oxygen required will be provided by known methods in submarines and space stations. This variant is much more soundproofed than in the variants with two coils, because the acoustic bridges are eliminated.