Supergravity system

Abstract

The invention discloses a supergravity system comprising: a mechanical shaft connected to at least one central motor, the at least one central motor configured to cause rotational movement of the mechanical shaft; at least one connecting arm connected to the mechanical shaft; at least one accommodation chamber, and wherein each accommodation chamber is connected to a connecting arm by an articulated connection wherein the articulated connection is configured such that the accommodation chamber moves radially outward during rotation of the mechanical shaft wherein the connecting arm comprises at least one object channel, the at least one object channel is configured to enable an object to enter and / or leave the accommodation chamber through the connecting arm.

Description

Technical Field

[0001] The present invention relates to a system capable of simulating hypergravity conditions in a controlled environment by rotation of a containment chamber. More specifically, the present invention relates to a hypergravity system comprising a pendulum containment chamber connected to a mechanical axis and intended to simulate hypergravity conditions that can last up to several months without interruption. Background Art

[0002] Equipment comprising a personnel chamber in which hypergravity conditions can be simulated is already known in the prior art and is used in the aerospace industry, for example, to acclimate astronauts to environmental changes during moments of very high acceleration, such as rocket launches.

[0003] Among some existing solutions, the effects of hypergravity have been tested in the sports industry to prepare athletes. Training in an environment with higher gravity than Earth's gravity can help the human body reach new limits and improve performance in competitions.

[0004] Therefore, some prior art solutions aim to provide better conditions for sports preparation or adaptation in a gravity environment by generating centripetal acceleration. Russian patent application RU96780U1 discloses a technology aimed at sports training or improving sports performance by increasing the gravity applied to an environment, which will be located inside a cylindrical shaft rotating under the action of a force simulating gravity in said environment.

[0005] Japanese patent application JP2019187782A discloses a hypergravity device that enables training by systematically and stably changing the gravity in the environment. The hypergravity environment application training device is arranged on a rotating plate that rotates around a rotation axis and includes an angle adjustment device and a plurality of hypergravity chambers in which a subject can perform his / her training.

[0006] Predrag Jectovic's non-patent document "ELECTRODYNAMIC GRAVITY GENERATOR FORARTIFICIAL GRAVITY MODULES" reveals the possibility of generating artificial gravity, taking into account the many harmful effects that the lack of gravity in space can have on human health. Thus, the article proposes that the generated centripetal acceleration can replace gravity. The goal is to obtain controlled rotation to achieve at least a partial level of artificial gravity, so as to allow more complex space exploration in the presence of humans.

[0007] Based on the analysis of the prior art, it is clear that creating hypergravity conditions and maintaining them for long periods of time is still a process full of technical challenges. This is because existing controlled environments impose significant restrictions on the human body, such as, but not limited to, movement restrictions and sun shielding. In addition, users in hypergravity environments will eventually need to eat, replenish water, and meet physiological needs. Such restrictions make it difficult to conduct research for longer periods of time.

[0008] Therefore, existing prior art solutions fail to disclose a hypergravity system that allows humans to be tested or trained under increased gravity for extended periods of time.

[0009] Furthermore, the prior art fails to disclose a hypergravity system that allows objects to enter and exit during their rotational motion, which is intended to improve the quality of life of the user and provide for the survival of humans for extended periods of time.

[0010] Purpose of the Invention

[0011] One of the objects of the present invention is to disclose a hypergravity system that allows testing or training of humans under increased gravity for extended periods of time.

[0012] One of the objectives of the present invention is to introduce a hypergravity system that allows objects to enter and leave during their rotational motion (with the goal of providing conditions for human survival for long periods of time). Summary of the invention

[0013] The present invention relates to a hypergravity system comprising: a mechanical shaft connected to at least one central motor, the at least one central motor being configured to cause rotational movement of the mechanical shaft; at least one connecting arm connected to the mechanical shaft; at least one receiving chamber, and wherein each receiving chamber is connected to the connecting arm by an articulated connection. The articulated connection is configured such that during rotation of the mechanical shaft, the receiving chamber moves radially outward, wherein the connecting arm comprises at least one object channel, the at least one object channel being configured to allow delivery of an object into the receiving chamber and / or retrieval of an object from the receiving chamber through the connecting arm.

[0014] In addition, the receiving chamber has at least one outlet, one for general objects discharged by the mobile compartment, and one outlet for waste guided by the connecting pivot between the receiving chamber and the connecting arm and then reaching the dirt tank through the pipeline. In the configuration of the invention in which there are two outlets, they are independent. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] The described invention may be more fully understood by referring to the detailed description when considered in conjunction with the following illustrative drawings.

[0016] Figure 1is a perspective view of a hypergravity system according to an embodiment of the present invention;

[0017] Figure 2A A longitudinal cross-sectional view of a receiving chamber coupled to a connecting arm according to an embodiment of the present invention is shown, wherein various object channels housed inside the connecting arm and how these object channels are located inside the chamber can be observed;

[0018] Figure 2B A front view showing a connecting arm of an articulated connection connecting a mechanical shaft to a receiving chamber in accordance with an arrangement of the present invention;

[0019] Figure 3A A cross section of a connecting arm coupling a mechanical shaft to a receiving chamber according to an embodiment of the present invention is illustrated to illustrate a possible embodiment, wherein all channels of at least one object channel are arranged in the connecting arm;

[0020] Figure 3B Alternative embodiments are illustrated wherein some of the at least one object channel are externally attachable to the connecting arm;

[0021] Figure 4 The structure of a hypergravity system according to one form of the present invention is disclosed, such as a plurality of maintenance and refueling stations, access paths to mechanical shafts, support structures, connecting arms, canopies, sunlight capture elements, and external collection spaces;

[0022] Figure 5 is a top view of a hypergravity system configured in accordance with the present invention and illustrating the distance between the mechanical axis and the containment chambers, the dimensions of the containment chambers, and the distance between the containment chambers for a stationary state;

[0023] Figure 6 A model of the present invention is illustrated in which a movable passage connects two adjacent receiving chambers;

[0024] Figure 7 is a top cross-sectional view showing 24 receiving chambers at rest arranged radially about a mechanical axis (deleted) according to a possible configuration of the present invention;

[0025] Figure 8 An extreme case is illustrated in which the accommodation chambers are rotated 90° relative to their resting position according to an embodiment of the present invention to show the adaptation of the movement path to the conditions of a larger distance between adjacent accommodation chambers;

[0026] Fig. 9 An embodiment of the invention is illustrated wherein the connecting arms and the radial peripheral circular structure are formed by a lattice-like structure. DETAILED DESCRIPTION

[0027] The present invention relates to a hypergravity system comprising: a mechanical shaft connected to at least one central motor, the at least one central motor being configured to cause a rotational movement of the mechanical shaft; at least one connecting arm connected to the mechanical shaft; at least one receiving chamber, wherein each receiving chamber is connected to the connecting arm by an articulated connection. The articulated connection is configured so that during rotation of the mechanical shaft, the receiving chamber moves radially outward. The connecting arm comprises at least one object channel, the at least one object channel being configured to enable an object to enter and / or leave the receiving chamber through the connecting arm.

[0028] The detailed description of example versions herein refers to the accompanying drawings showing exemplary embodiments. Although these exemplary embodiments are described in sufficient detail to enable those skilled in the art to perform these designs, it should be understood that other embodiments may be implemented and that logical changes and adaptations in design and construction may be made in accordance with the teachings of this disclosure and this article. Therefore, the detailed description herein is presented for purposes of illustration only and not limitation.

[0029] Figure 1 A hypergravity system (10) for creating hypergravity conditions by centripetal acceleration in radially arranged containment chambers (100) is shown. The use of such equipment provides a less invasive environment for human occupants and thus enables human testing to be maintained under such conditions for longer periods of time. The hypergravity system (10) and the external structure of the containment chambers (100) may be constructed of materials such as, but not limited to, metal alloys, steel, and titanium.

[0030] In an alternative embodiment, the holding chamber has a rectangular area of ​​4 meters wide by 6 meters long, for a total of 24m 2 The interior space of a structure is used for the movement or arrangement of objects.

[0031] Still in Figure 1 In the invention, a mechanical shaft (114) is disclosed. 114 and through articulated connections 108 The mechanical shaft 114 Connect to the holding chamber 100 Connecting arm 113 The arrangement.

[0032] In an optional embodiment, the system further comprises a mechanical shaft 114 Concentric radial peripheral circular structure 119 , the radial peripheral circular structure will connect the arm 113 Articulated connections near them 108 Connected to each other. Radial peripheral circular structure 119 By preventing undesirable influences (such as 114 Connect to the holding chamber 100The occurrence of warping caused by bending moments in the arms of the device can provide greater integrity to the device.

[0033] Figure 2A A longitudinal cross-sectional view of a receiving chamber 100 coupled to a connecting arm 113 is shown, wherein various object passages housed inside the connecting arm and how these object passages are located inside the chamber can be observed. In the following various embodiments, possible object passages present in the connecting arm 113 will be described, which are responsible for transporting objects to the interior of the receiving chamber 100 and providing the necessary conditions for a user or athlete to remain in the receiving chamber for a long period of time.

[0034] exist Figure 2A In the illustrated alternative embodiment, the channel path is formed by at least one conduit having a corrugated tube interface at the articulated connection 108. The corrugated tube interface is, but is not limited to, one or more of one or more siphon tubes and one or more flexible conduits. In addition, the corrugated tube interface may also include a reinforcement structure.

[0035] exist Figure 2A In the optional embodiment shown, the at least one channel path includes at least one cable 101, which is at least one of one or more power cables and one or more telecommunication cables. The one or more power cables are used to supply power to the receiving room 100, and the one or more telecommunication cables are used to carry television and Internet signals to the receiving room 100.

[0036] exist Figure 2A In the illustrated alternative embodiment, the holding chamber 100 includes at least one water reservoir 106, and the at least one channel also includes a treated water inlet 102 for supplying treated water to the holding chamber 100 and the at least one water reservoir 106. The treated water inlet 102 allows water to be directed directly to the shower, toilet, and faucet, and the water reservoir 106 allows the holding chamber 100 to maintain a supply of treated water in the event of a failure of the water supply or the treated water inlet 102. In this way, the water reservoir 106 is also connected to the toilet, shower, and faucet.

[0037] exist Figure 2A In the optional embodiment shown, the at least one passage path also includes at least one optical fiber 103 connected to a solar panel (not shown). The solar panel is arranged outside to capture sunlight, and the at least one optical fiber 103 is arranged to transmit the sunlight captured by the solar panel to the interior of the receiving chamber 100. In this way, exposure to sunlight can be achieved inside the receiving chamber 100, which avoids possible health problems caused by the lack of sunlight for a long period of time.

[0038] exist Figure 2AIn another optional embodiment shown, the at least one passageway additionally comprises an object inlet 104 formed by a folding interface at an articulated connector 108. The object is inserted into the holding chamber in a sphere, which may be made of, for example, but not limited to, at least one of a polymer, a metal alloy, steel, and aluminum. The sphere is formed by two hemispheres, which contain objects to be inserted into the holding chamber 100 therein, and the hemispheres are connected by, but not limited to, at least one connecting mechanism: a threaded fitting, a clamp, and a metal latch. The sphere rolls through the at least one passageway between the mechanical shaft 114 and the holding chamber 100 through a connecting arm 113 and an articulated connector 108. In this way, the hypergravity system can be kept operating for a long period of time without interrupting the supply to the holding chamber.

[0039] exist Figure 2A In the illustrated alternative embodiment, the receiving chamber 100 comprises a dirt outlet 109, and the at least one channel also comprises a dirt outlet 109. The dirt is pumped out of the receiving chamber 100 from a pump arranged in the dirt tank 107 through the dirt outlet 109, passing through the articulated connection 108 and the connecting arm 113 until reaching the mechanical shaft 114. Thus, the dirt outlet 109 allows the dirt tank to be emptied throughout the rotation cycle, which allows it to last for a longer time.

[0040] exist Figure 2A In the illustrated alternative embodiment, containment chamber 100 includes an object outlet 105 configured to receive a sphere and allow the sphere to pass out of the containment chamber. Objects are removed from containment chamber 100 and enter the sphere from object outlet 105, where the sphere rolls through outer containment wall 115 until reaching outer collection space 118. Thus, object outlet 105 allows material to be removed from containment chamber 100 without interrupting the rotational motion of the hypergravity system. Figure 4 An outer containment wall 115 and an outer collection space 118 are shown.

[0041] Reference again Figure 2A , the articulated connection 108 allows the chamber 100 to perform a pendulum movement with different centripetal accelerations. The rotation speed of the chamber 100 and the radius of rotation of the chamber (the extension of the connecting arm 113) directly affect the gravity felt in the chamber 100. The greater the speed and radius, the greater the gravity felt in the chamber 100.

[0042] Figure 2AAlso disclosed is the arrangement of the compartments and components making up the holding chamber 100, namely: a drinking water reservoir 106 in the upper part of the chamber for storing water in the event of a distribution failure; an object inlet 104 on the inner surface of the holding chamber 100; a treated water inlet 102 for supplying water into the holding chamber 100 and into the reservoir 106; a sunlight inlet 103 through at least one optical fiber; and an object outlet 105 in the lower left corner.

[0043] Furthermore, the use of the object inlet 104 , the object outlet 105 , and the waste outlet 109 does not interfere with the rotational movement of the hypergravity system 10 .

[0044] Figure 2B 1 is a front view of the connecting arm 113 connecting the mechanical shaft 114 to the receiving chamber 100. In one embodiment of the present invention, the connecting arm 113 and the radial peripheral circular structure 119 can be composed of a lattice structure. In an alternative embodiment, the connecting arm 113 and the radial peripheral circular structure 119 can be constructed of a tubular structure.

[0045] Figure 3A 1 represents a cross section of a connecting arm 113 of the present invention in an embodiment in which the arm 113 has a tubular structure. Thus, the arrangement of the at least one channel can be observed, in particular, the object inlet 104 consists of a wide metal tube with a diameter of 400 mm, for conveying the most abundant and diverse types of substances, such as but not limited to drinking water, clothes and food. In addition, channels for at least one optical fiber 103, at least one cable 101, a treated water inlet 102 and a sewage outlet 109 are also shown.

[0046] Figure 3B represents an alternative embodiment of the invention in which the passages for the sewage outlet 109 and for the process water inlet 102 are externally fixed to the connecting arm 113 by way of example but not limitation.

[0047] about Figure 3A and Figure 3B , it is not required that all configurations of the present invention have all possible facilities, that is, the number of object channels can be limited according to the application and technical feasibility of the project. In addition, additional channels and ducts can be incorporated without damaging the concept of the present invention.

[0048] Figure 4 An embodiment of the invention is shown wherein the hypergravity system comprises an outer containment wall 115 which is a civil structure radially surrounding the shaft 114 and the at least one containment chamber 100 for access by humans and for collecting scavenging spheres. Figure 4In the figure, the at least one outer collection space 118 contained in the outer containment wall 115 can be seen, wherein the at least one collection space 118 is configured to receive the spheres removed by the containment chamber. Preferably, each of the at least one outer collection space 118 is spaced apart at an angle of 90 degrees.

[0049] Still based on Figure 4 In the configuration of the present invention shown, the connecting arm 113 can be reinforced by at least one supporting structure to support the connecting arm 113. Preferably, the at least one supporting structure includes at least one of the following but not limited to the following: a steel cable 117 (tie) and a bracket 116. Specifically, the steel cable 117 can be used for support at the top of the connecting arm 113, and the bracket 116 can be used for support at the bottom of the connecting arm 113.

[0050] Figure 4 Also disclosed are maintenance and multiple supply stations 112 arranged above the mechanical shaft 114 and connected to at least one channel, wherein all entry and exit points for the containment chamber 100 are centralized, such as light, water, energy, and object entry. Insertion of objects can be accomplished manually or electronically. Access to the multiple maintenance and supply stations 112 is accomplished through at least one access passage 111 leading to the mechanical shaft 114, which connects the outer containment wall 115 to the mechanical shaft 114. The mechanical shaft 114 additionally includes at least one central motor (not shown) configured to cause rotational movement of the mechanical shaft 114. The design and size of the central motor will depend on the weight and size of the structure, and the one or more motors can be selected from internal combustion engines and electric motors.

[0051] Still based on Figure 4 In the embodiment of the invention, the hypergravity system 10 is covered by a conical top cover 110. A solar panel (not shown) is arranged above the top cover to capture light. The solar panel is connected to at least one optical fiber cable 103 and enters the hypergravity system 10 through a mechanical shaft 114, and from there along a connecting arm 113 to the containment chamber 100, as shown in FIG3. In this way, natural lighting can be provided to the interior of the chamber, which provides advantages related to the health of the user confined in the containment chamber 100 and energy saving.

[0052] exist Figure 5, a top view of a portion of a hypergravity system 10 is shown, wherein the rotation radius of the hypergravity system 10 is 23m. This is also the same as the length of the connecting arm 113. In the static state, the closest points between adjacent outer containment chambers are separated by 56mm. Considering the size of the connecting arm 113 is 23m, the inner diameter of the hypergravity system is 46m. For example, in order to achieve a speed of 2G, the mechanical shaft 114 of the hypergravity system 10 must rotate at a speed of about 100km / h (70° / s or 11.67RPM) at the end of the containment chamber 100.

[0053] Figure 6 An embodiment of the present invention is illustrated, in which a movable passage 120 connects two adjacent containment chambers. In this embodiment, the hypergravity system 10 includes one or more passages 120 connecting containment chambers 100. Preferably, the one or more movable passages 120 include a sliding floor, a sliding cover, and a corrugated (or hinged) wall. When the system 10 rotates at high speed, the corrugated wall has the function of providing greater safety for the passage 120, and the sliding cover acts in the same manner as the sliding floor of the movable passage.

[0054] Figure 6 An illustration of the sliding floor of one of these passages 120 is shown without any sliding, i.e., when the hypergravity system 10 is at rest. With the movement of the mechanical shaft 114, the one or more passages 120 are configured to modify their lengths with the separation of the rotating containment chamber 100. The articulation of the moving passage 120 can be done mechanically (where it is regulated by the rotating motion itself), or electronically by using electronic controls and hydraulic pistons. For example, the moving passage can have a shape similar to a corrugated pipe connection between train or bus cars with a large length.

[0055] The modules of the receiving chamber 100 can be configured according to the needs and complexity of each purpose, and the chambers 100 can be connected to each other or not through the moving passage 120. Figure 2A The configuration shown includes any items and facilities that make up the house.

[0056] Thus, when present, the one or more passageways 120 allow the accommodation rooms 100 to share interior space with each other to provide space for at least one collective space, including but not limited to a theater, a game room, a community center, a dormitory, a cafeteria, a pantry, a service dormitory, a collective bathroom, a swimming pool, a running track, a library, an office, a service area, a kitchen, a multimedia room, and a gym.

[0057] In another alternative embodiment, each of the receiving chambers 100 is constructed as a detachable module, which allows the side walls to be removed if necessary to connect the receiving chamber 100 with the passage 120. Therefore, the receiving chamber 100 can be constructed according to the needs and complexity of each purpose.

[0058] Figure 7 Corresponding to a top cross-sectional view showing an arrangement of 24 receiving chambers 100 at rest according to a preferred embodiment of the present invention.

[0059] exist Figure 8 In the other views of the passage 120 between the accommodation chambers 100, alternative and hidden sections are revealed. In this representation, the corrugated walls and the sliding cover of the passage 120 have been hidden for better visualization. The structure of the passage 120 extends from under the base plate and slides as the rotation increases, and thus increases the space between the chambers in order to continue to provide safe access conditions from one chamber to another. The passage 120 between the accommodation chambers 100 will increase by a maximum of 35 cm on each side. This type of passage with a sliding structure is similar to the passage used in, for example, urban trains to connect carriages or articulated buses.

[0060] exist Fig. 9 100 is illustrated in which the connecting arms 113 and the radially peripheral circular structure 119 are formed by a space frame structure. In addition, the tilt of the containment chamber 100 rotating at maximum speed can be observed, the tilt caused by the rotation of the mechanical shaft 114 representing the radially outward displacement of the containment chamber 100 allowed by the articulated connection 108. Since the combined force of the centrifugal force and the normal force is perpendicular to the floor of the chamber, the sensation of a person in the containment chamber 100 is almost imperceptibly changed.

[0061] Furthermore, the presence of sufficient internal space in the accommodation chamber for free movement and a sufficiently large rotation radius (23 m) reduces the risk of people suffering from sleeping syndrome, which can affect people who are subjected to changes in gravity due to uniform swinging movements with a short rotation axis due to the difference in the hypergravity measured at the head and feet depending on the difference in distance to the axis.

[0062] The hypergravity system 10, object of the present invention, is intended to achieve confinement lasting 1 month or more and to operate on a regular weekly maintenance schedule with the aid of object entry and exit and water supply problems in the event of such problems and in the presence of water and sewage reservoirs allowing up to 7 days of uninterrupted operation.

[0063] Thus, the present invention provides a hypergravity system in which a person can walk freely within the environment and continue their daily activities and training. Although the focus of the specific implementation is on the field of sports, the present invention can be used in the most diverse fields such as physical therapy, medicine, aerospace, military, entertainment, etc.

[0064] The present invention is advantageous because it solves the problem of object entry and exit through the collector and removal, allowing the machine to be kept running uninterrupted for an unlimited period of time. In this way, a regular maintenance plan can be planned, such as a weekly one, to assist with object entry and exit - we install water tanks and dirt tanks so that even if there is a problem with object entry and exit, the system can be kept running uninterrupted for up to 7 days.

[0065] Numerous variations are permitted that affect the scope of protection of the present application. This reinforces the fact that the present invention is not limited to the specific configurations / embodiments described above.

Claims

1. A hypergravity system (10), characterized in that: It includes: a mechanical shaft (114) connected to at least one central motor, the at least one central motor being configured to cause rotational movement of the mechanical shaft (114); at least one connecting arm (113) connected to the mechanical shaft (114); and at least one receiving chamber (100), wherein each receiving chamber (100) is connected to a connecting arm (113) via an articulated connection (108); wherein the articulated connection (108) is configured such that during rotation of the mechanical shaft (114), the receiving chamber (100) moves radially outward; The connecting arm (113) includes at least one object channel, and the at least one object channel is configured to enable an object to enter and / or leave the receiving chamber (100) through the connecting arm (113).

2. The hypergravity system (10) according to claim 1, characterized in that: It further comprises at least one channel externally fixed to said connecting arm (113).

3. The hypergravity system (10) according to claim 1 or 2, characterized in that: The at least one channel is formed by at least one conduit having a bellows interface at the articulated connection (108); The corrugated tube interface is one or more of one or more siphon tubes and one or more flexible conduits.

4. The hypergravity system (10) according to any one of claims 1 to 3, characterized in that: The at least one channel comprises at least one optical fiber bundle (103) connected to a solar panel, the solar panel being arranged outside to capture sunlight, and the at least one optical fiber bundle (103) being arranged to transmit the sunlight captured by the solar panel to the receiving chamber (100).

5. The hypergravity system (10) according to any one of claims 1 to 4, characterized in that: The at least one channel further comprises: at least one cable (101), the at least one cable being at least one of one or more electrical cables and one or more telecommunication cables; One or more power cables for supplying electrical energy to the receiving chamber (100); and The one or more telecommunication cables are used to carry television and internet signals to the housing chamber (100).

6. The hypergravity system (10) according to any one of claims 1 to 5, characterized in that: The receiving chamber (100) comprises at least one water reservoir (106), and wherein the at least one channel comprises a treated water inlet (102) for supplying treated water to the receiving chamber (100) and the at least one water reservoir (106).

7. The hypergravity system (10) according to any one of claims 1 to 6, characterized in that: The receiving chamber (100) includes a waste outlet (109); and The at least one channel further comprises the waste outlet (109), The waste is pumped out of the receiving chamber (100) from a pump arranged in the waste tank (107) through the waste outlet (109).

8. The hypergravity system (10) according to any one of claims 1 to 7, characterized in that: The at least one channel further comprises an object inlet (104); The object is inserted into the receiving chamber (100) inside the ball, and the ball rolls through at least one passage between the mechanical shaft (114) and the receiving chamber (100) via the connecting arm (113) and the articulated connection (108).

9. The hypergravity system (10) according to any one of claims 1 to 8, characterized in that: It includes: an outer containing wall (115) radially surrounding the mechanical shaft (114) and the at least one accommodating chamber (100); At least one outer collection space (118) is contained within the outer containment wall (115), wherein the at least one collection space (118) is configured to receive spheres removed from the containment chamber (100).

10. The hypergravity system (10) according to claim 9, characterized in that It comprises at least one access passage (111) to the mechanical shaft (114), the at least one access passage connecting the outer containment wall (115) to the mechanical shaft (114).

11. The hypergravity system (10) according to claim 9, characterized in that: The receiving chamber (100) includes an object outlet (105) configured to receive the ball and allow the ball to pass out of the receiving chamber (100).

12. The hypergravity system (10) according to any one of claims 8 to 11, characterized in that The sphere is formed by two hemispheres connected by a connection mechanism between threaded fittings, clamps and metal engaging buckles.

13. The hypergravity system (10) according to any one of claims 1 to 12, characterized in that: It also comprises a radial peripheral circular structure (119) concentric with the mechanical axis (114) and connecting the connecting arms (113) to each other near their articulated connections (108).

14. The hypergravity system (10) according to any one of claims 1 to 13, characterized in that The connecting arm (113) and the radial peripheral circular structure (119) are one of a tubular structure and a lattice structure.

15. The hypergravity system (10) according to any one of claims 1 to 14, characterized in that It includes: at least one supporting structure for supporting the connecting arm (113); At least one support structure, at least one of which is a steel cable (117) and a corner brace (116).

16. The hypergravity system (10) according to any one of claims 1 to 15, characterized in that It comprises at least two containing chambers (100), The hypergravity system (10) further comprises: One or more movable passages (120) connected to the accommodation chamber (100), the one or more movable passages (120) comprising a sliding bottom plate, a sliding cover and a corrugated wall, and One or more of the moving paths (120) are configured to modify their lengths by moving the rotating containment chambers (100) apart as the mechanical shaft (114) moves.

17. The hypergravity system (10) according to any one of claims 1 to 16, characterized in that The at least one central engine configured to cause rotational movement of the mechanical shaft (114) is at least one of an internal combustion engine and an electric motor.

18. The hypergravity system (10) according to any one of claims 1 to 17, characterized in that It comprises a plurality of maintenance and supply stations (112) arranged above a mechanical axis (114) and connected to at least one channel, wherein all entry and exit points of the containment chamber (100) are centralized.

19. The hypergravity system (10) according to any one of claims 1 to 18, characterized in that Each of the accommodation chambers (100) is constructed as a detachable module allowing removal of a side wall.

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