Earthquake Deceleration System

Abstract

This invention allows earthquakes to occur more slowly than they would otherwise by dampening their rate of occurrence. Fault lines capable of generating earthquakes are stretched along their entire length and connected to each other like stitches with spring steel cables. The connections can be straight or diagonal. When potentially devastating earthquakes occur, the steel cables begin to stretch, dampening the intensity of the earthquake's impact. The springs in the steel cables compress. These springs are released and returned to their original state by a controlled motorized system during or after the earthquake. With this invention, the destructive effects of earthquakes are reduced or completely eliminated.

Description

1 TARIFF EARTHQUAKE FORMATION SLOWING SYSTEM Technical Area 5 This invention aims to slow down the occurrence of earthquakes and reduce their intensity. It is designed so that potentially destructive earthquakes are slowed down at their normal rate of occurrence, resulting in lower intensity earthquakes. It is intended to be realized. State of the Art Currently, no systems are used to slow down earthquakes. 10 Purpose of the Invention Earthquakes destroy thousands of buildings and kill people. The economic damage is astronomical. It emerges. There is no remedy for this situation. The people who died cannot be brought back, and the destroyed buildings... They need to be cleaned and rebuilt. Also, buildings that weren't destroyed in the earthquakes suffered minor damage. This system reduces the intensity of earthquakes, minimizing damage. The aim is to achieve this. Perhaps with this system, all earthquakes can be rendered completely harmless. It can be brought. Explanation of the Figures Figure 1: Side view of land masses separated by fault lines; spring-loaded and computer-generated image. Connected by controlled motor-driven fixed steel cables. 20 Figure 2: The elongation and springing of the steel cable as landmasses separate during an earthquake. Showing the jamming. Figure 3: A motor with gears during or after an earthquake. It is operated automatically by a computer or remotely controlled. On the rope... Thanks to the screw threads, the compressed state of the spring is restored to its normal position. 25 Figure 4: Spring steel cables laid at appropriate or variable distances along fault lines. Explanation of References in Figures 1: Side view of a landmass. 2: Side view of another landmass separated by a fault. 30 3: A room built underground. 4: During or after an earthquake, the spring compressed by the gears returns to its normal state. a computer-controlled motor that makes it come. 5: Wheels connected to the motor and steel cable. 6: Pub. 35 7: The channel system through which the steel cable passes. 2 8: Flanges attached to the channels. 9: Steel cable. The end of the steel cable on the land side (number 2) is fixed to the flanges. The other end is screwed to the gear wheel. During or after an earthquake, the motor computer... It is operated by the screw wheel, causing the spring to return to its normal position. 40 10: Fay. 11: Fault lines. 12: Spring-loaded and computer-controlled motorized systems installed underground at suitable or variable intervals. Steel spring system. The engine components are not shown in this image. Spring steel cables, destructive effect. They are laid at intervals appropriate to potential fault lines. 45 Description of the Invention The steel cable (9) is stretched between two land masses separated by a fault line. The tension is spread (6) is provided. One end of the steel cable (9) is fixed with a flange. The other end is a screw hub. It is connected to the wheel (5). The steel cable (9) passes through the channels (7). The wheel of the steel cable (5) The motor (4) is connected to the wheel (5) of the steel cable (9) by its gears. The motor (4) is connected to the wheel (5) of the steel cable by its own wheel (5). (5) gives movement. The system is underground or above ground in a room (3). Earthquake When the fault (10) starts to open with its formation, the steel cable (9) is stretched and the spring (6) starts to compress. The formation of an earthquake occurs through damping within the system. For example, an earthquake lasting 20 seconds. Depending on the situation, it occurs in 40-50 seconds or longer, and with lower intensity. During or after the earthquake, the motor (4) starts and turns the wheels (5) and the steel 55 By turning the wheel (5) with a screw hub on the rope (9), it loosens the steel rope (9). It is jammed. spring (6) returns to its normal position. There are no obstacles to the occurrence of earthquakes. When the necessary conditions are met, the earth's crust... plates or landmasses (1)(2) move and an earthquake occurs. With this discovery, we can identify faults We will connect the lines (10) to each other like sewing with spring (6) steel ropes (9). Fault (10) active 60 When this happens, the steel cables (9) will stretch and the springs (6) will slowly compress. 40-50 seconds An earthquake that can last for 70-80 seconds or longer will occur and the moment of rupture It will happen slowly. Thus, the earthquake will progress from a destructive intensity to a shaking intensity, or It may decrease to a vibration that is imperceptible. After the earthquake ends or after the earthquake The instantly compressed springs (6) will be loosened by the computer-controlled motorized (4) system and the spring (6) 65 The congestion will be relieved. The release of compression in the springs (6) can also be achieved during an earthquake. Thus, the springs (6) are very The rate at which an earthquake occurs is controlled by the system without excessive compression. This will be implemented and the rate at which earthquakes occur can be reduced. Furthermore, if necessary... The springs (6) can also be connected in reverse. That is, instead of compressing the springs (6), they can be stretched to the land by the tension method. It is fixed and in case of an earthquake, the spring (6) stretches and is stretched. Then it is returned to its original position. This In the system, one spring (6) per steel cable (9) is considered. However, in case of necessary circumstances A spring (6) and motor (4) system can be installed on both ends of the steel cable (9). With the Earthquake Slowing System, the occurrence of earthquakes becomes much slower. It can be brought about and perhaps not even felt. The tension in the Earth's crustal plates has increased over the years, 75 It is constantly increasing and fault lines (10) open up a little every year. With this opening, fault lines 3 Continuous tensile strength accumulates, and eventually, this accumulated strength is released when the fault ruptures. The movements of the faults (10) are called earthquakes. Thanks to the Earthquake Formation Deceleration System It can be monitored very closely and springs can be activated by computerized motorized systems as soon as the earthquake starts (6) The steel cables (9) are slowly released. Perhaps this way the earthquake will not be felt at all. 80 The lengths of the steel cables (12) and the spacing distances on the fault line (11) are determined by the rupture of the fault line (11). The shape and depth are determined and calculated by the relevant engineers. In this system... During the earthquake, cracks occurred in the soil areas to which the steel cables (12) were attached. These problems can arise. We must take the necessary precautions and develop techniques to prevent them from happening. It is necessary to use. For example, some of the steel ropes (12) have a length of 500 m or less. However, some may need to be 1000 m or longer. In Figure 4, the Earthquake Formation Deceleration System (12) is connected to the fault (11) lines with a stitching system. You can see the laying method. This laying system can be arranged diagonally or alternately as needed. It can be done with angles. How the Invention Can Be Applied to Industry 90 Thanks to the Earthquake Slowing System, in fault lines that can generate earthquakes Earth's crustal plates or landmasses are connected across the surface by steel cables running their lengthwise or They are connected to each other underground, or on the seabed, or beneath the sea. This This invention can be used on all earthquake-generating fault lines in the world. Depending on the type of fault line, The Earthquake Deceleration System can be installed at different angles. This system was examined and 95 It is quite difficult to determine whether it is working or not. It takes a lot of time to understand if it can work. It needs to be installed as a prototype in an earthquake-prone region. Even if it doesn't work, it will show the instantaneous effects of earthquakes. It enables excellent monitoring and, with data obtained over the years, allows for the tracking of earthquakes. The exact date or week it might happen can be predicted much more accurately.

Claims

4 REQUESTS 1. This invention is the Earthquake Formation Slowing System (12) and its feature is that it is made of steel cable (9), from the spring (6), from the flanges (8), from the channels (7), from the computer-controlled motor (4), to the motor (4) and has wheels (5) attached to the steel cable (9). One end of the steel cable (9) is fixed, the other 5 It has a wheel with a screwed end (5).

2. The Earthquake Generation Deceleration System (12) in Claim 1, for faults capable of generating earthquakes. to the fault lines (11); above or below the ground; to the seabed or under the sea; fault Depending on the movement of the lines, at appropriate or varying distances, straight or at varying angles 10 It has different ways of being laid out.

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