Explosion Engine

Abstract

The present invention provides an explosion engine, which includes an explosion linkage mechanism and an explosion water cylinder and a symmetrical mountain-shaped handle crankshaft spring piston transmission mechanism, water, mucus liquid explosive, a tongue rod collision seat, a striker collision head, etc. In the explosion water cylinder, when the explosion linkage mechanism squeezes the mucus liquid explosive out of the tongue rod collision seat port, the motor starts the symmetrical crankshaft to rotate 180°, driving the striker to collide with the explosive on the tongue rod port of the collision seat, causing an underwater explosion to work, pushing the left and right symmetrical mountain-shaped handle crankshaft spring piston transmission mechanism to reverse outward, and when the pistons at both ends reach the dead points respectively, the water discharge valve and the water inlet valve are opened due to water leakage from the explosion cylinder, and the piston returns, and collides again to explode and work. In this way, the symmetrical mountain-shaped handle crankshaft spring piston transmission mechanism is repeatedly operated back and forth to work continuously and uninterruptedly, and the symmetrical output of the rotational motive force of the same amount is obtained at the same time, and the comprehensive function of the existing engine is realized by n times.

Description

Technical Field

[0001] The present invention relates to the field of explosive engines, including the use of explosives to replace fuel oil, the use of explosive explosions to replace fuel oil combustion, the use of chemical energy of explosives to implement water explosions through mechanical devices, and the effective conversion of chemical energy of explosives into mechanical energy, thereby outputting mechanical energy motive force, and achieving comprehensive functions and cost-effectiveness that are n times beyond existing combustion engines. The present invention widely meets the needs of mobile machinery and fixed machinery for super-power and supersonic speed. Specifically, it relates to an explosive engine. Background Art

[0003] The expansion intensity of the explosion is like the speed of light, which is an ultra-limited high-temperature and high-pressure explosion with extremely fast and limited expansion, while the intensity of the combustion is like the speed of sound, which is a limited high-temperature and high-pressure combustion expansion with high-speed expansion. The former is an ultra-limited performance, and the result is an explosion; while the latter is a limited performance, and the result is a combustion. Obviously, there are huge differences in the strength, intensity, speed, and energy limits of the two, and there is no comparability. Moreover, the explosion engine achieves the strongest power standard by reducing the explosion intensity, while the combustion engine achieves the strongest power standard by increasing the combustion intensity. The two are opposite. Then, as long as the explosion engine is developed and realized, it can reach the top in the engine field, and it is understandable to surpass the existing engines. The key is, how can the explosion engine be realized?

[0005] Therefore, we once again conducted a comprehensive study and analysis of the problems of limited output power and limited speed of existing engines, and found that the problem still lies in the different properties of combustion and explosion. Under the same conditions, the kinetic energy released by explosion is more complete and pure than that released by combustion, with n times more. Therefore, combustion restricts the capabilities of existing combustion engines, including gasoline engines, diesel engines, rocket engines, turbofan engines, steam turbines, etc., all combustion engines. Only the kinetic energy of explosion can make the engine play to its extreme and achieve extraordinary performance that surpasses all engines.

[0006] At the same time, the explosion engine was subjected to research and development test experiments imitating the existing engine, but the research and development ended in failure every time.

[0007] Then, we implemented water explosion test research and development, and found that it can be achieved by using water, three-stage control, symmetrical push, etc., and synchronously and equally dissipating the explosion kinetic energy. As a result, we broke through the problems of explosion cylinder, drug delivery, control, transmission, detonation, dissipation, high temperature and high pressure vacuum removal, linkage, telescopic collision, start and stop, etc., and were close to success. However, we were unable to break through the difficulty of the linkage mechanism delivering drugs and blocking the explosion.

[0009] Finally, based on the principle of paper shell gun excitation, the principle of existing automatic gun excitation recoil, the principle of reservoir fish blasting, the principle of blasting in quarries, the principle of collision and repulsion of like-pole magnetic fields, etc., the impossible explosive engine became possible. Summary of the invention

[0010] The present invention provides an explosion engine, which is an upgraded cross-generation engine of a combustion engine, and can replace all existing engines, solving the power and speed limitation problems of existing engines, and can achieve comprehensive functions and cost performance of explosion engines that are n times beyond existing engines. Then, it can solve the problem of my country using explosives to replace fuel oil and reduce the heavy dependence on oil imports, and at the same time, solve the problem of replacing explosives with electricity and reducing natural gas imports, etc., which is of great significance!

[0011] The present invention is achieved in that:

[0012] The explosion engine of the present invention includes the explosion driven spring force, and synchronous linkage control of the amount of viscous liquid explosive to achieve the control of the size of the explosion equivalent kinetic energy. The explosion equivalent kinetic energy is directly implemented through three-stage control sealing and central center water explosion cutting and symmetrical equal cutting and elimination, and the left and right sections of water force kinetic energy are divided in the middle. Then, the left and right sections of water force kinetic energy are used to push the symmetrical crankshaft mountain handle spring piston transmission mechanism to push outward in the opposite direction and synchronously and equally divided symmetrically, so that the symmetrical double crankshafts at the left and right ends are synchronously and equally rotated 180 degrees. It also includes the high temperature and high pressure of the inner cylinder generated by the cylinder-in-cylinder water explosion. After the equal division of work, when there is still a pressure difference between the remaining vacuum swing pressure and the pressure of the large water cylinder outside, the favorable conditions of the internal and external pressure difference and the explosion high temperature vacuum swing cutting are effectively utilized to implement the water leakage valve opening and water leakage. When water is leaking, it not only causes the rapid disappearance of the explosion vacuum shock wave airflow, but also avoids the secondary shock wave diffusion destructive force, and promotes the smooth return of the piston, and then successfully implements the collision water explosion between the tongue rod collision seat and the tongue rod collision head again, pushing the symmetrical crankshaft mountain handle spring piston transmission mechanism to push outward equally and symmetrically, so that the left and right symmetrical double crankshafts rotate 180° synchronously again, forming a piston back and forth once, and the crankshaft rotates 360°. In the same way, the relay operation is repeated, and the symmetrical crankshaft mountain handle spring piston transmission mechanism is realized to continuously and uninterruptedly run back and forth to do work, thereby obtaining continuous and uninterrupted rotational mechanical energy motive force and synchronously and symmetrically outputting equal amounts, so that the explosion engine can be realized.

[0013] Furthermore, the above-mentioned explosion engine substantially includes an explosion linkage mechanism and an explosion water cylinder and a symmetrical mountain-shaped handle crankshaft spring piston transmission mechanism, water, mucus liquid explosive, tongue rod collision seat, striker collision head, etc. In the explosion water cylinder, when the explosion linkage mechanism squeezes the mucus liquid explosive out of the tongue rod collision seat port, the motor starts the symmetrical crankshaft to rotate 180°, driving the striker to hit the head, and collides with the explosive on the tongue rod port of the collision seat, causing an underwater explosion and work, pushing the left and right symmetrical mountain-shaped handle crankshaft spring piston transmission mechanism to reverse outward, and when the pistons at both ends reach the stop points respectively, the drain valve and the water inlet valve are opened due to water leakage from the explosion cylinder, and the piston returns, and collides again to explode and work. Repeated operation in the same way realizes the continuous and uninterrupted reciprocating operation of the symmetrical mountain-shaped handle crankshaft spring piston transmission mechanism to achieve simultaneous and synchronous symmetrical output of equal amounts of rotational motive power, and achieves comprehensive functions and cost-effectiveness that exceed existing engines by n times.

[0014] Furthermore, the above-mentioned explosion event is based on the premise that the flexible function of water as a medium restrains the rigid function generated by the explosion. Under this condition, a three-stage controlled and sealed water explosion is implemented, which is called a water explosion. The water explosion is provided with a fixed point timing collision explosion suspended in the center of the explosion cylinder water cylinder, and water is used to achieve the synchronous and equal division and cutting of the explosion equivalent kinetic energy by softness and hardness. The cylindrical tube wall of the explosion cylinder controls the longitudinal division and elimination of the explosion equivalent kinetic energy, and the center of the explosion circle suspended in the center is used as the explosion cutting dividing line. The explosion vacuum formed by the explosion will divide the explosion power horizontally and symmetrically to the left and right ends, forming the water kinetic energy generated by the explosion at the left and right ends to be equal and cut and divided, realizing the symmetrical push and elimination phenomenon of the explosion kinetic energy. This method of symmetrical push and elimination of the explosion kinetic energy is called the water explosion elimination method. The water explosion elimination method is provided with the function of a symmetrical push piston transmission mechanism, which is converted into real mechanical energy. The mechanical energy lays a solid foundation for the realization of the explosion engine.

[0015] Furthermore, the nature of the explosion event described above is a water explosion. One of the conditions for the water explosion is that the explosion of a closed water cylinder within a cylinder effectively utilizes the pressure difference between the inner and outer water cylinders to cause water leakage and isolates the impact diffusion of the explosion wave from contact with the air and friction to produce sound, thus achieving a cyclic explosion and a silent explosion.

[0016] Furthermore, the nature of the explosion event described above is a water explosion, and the second condition of the water explosion is: symmetrical push, suspended water explosion in the center, and controlled by a closed tube to cancel each other out in equal parts. The principle of using softness to overcome hardness, the principle of weak explosion cancellation, and the principle of telescopic collision avoidance and retreat, using water as a medium, effectively utilize the property of the explosion kinetic energy directly converted into the symmetrical cancellation of the explosion kinetic energy by the horizontal cancellation of the left and right weak ends, so that the explosion kinetic energy impact wave energy is instantly converted into the high-temperature and high-pressure water kinetic energy of the left and right ends in equal amounts, and then, the high-temperature and high-pressure water kinetic energy of the left and right ends is synchronously and symmetrically pushed against the piston again, so as to achieve the simultaneous and synchronous equal and equal elimination of the explosion equivalent kinetic energy, and convert it into the simultaneous and synchronous equal and equal symmetrical push mechanical energy, so that the mechanical energy is output at the left and right ends at the same time. Thus, the engine mode of converting chemical energy into mechanical energy is realized, and the direct replacement of fuel oil by explosives is realized. Thus, the most powerful explosion engine can be realized.

[0017] Furthermore, the nature of the explosion event described above is a water explosion, and the third condition of the water explosion is: an explosion linkage mechanism. The explosion linkage mechanism uses the explosion power to synchronously and drivenly compress the left and right adjacent cylinder springs to obtain the spring rebound force, and then uses the spring rebound force to act on the internal linkage hydraulic mechanism of the explosion engine to operate, pushing the sliding pistons of each level to produce the suction, pulling and pushing back and forth forces and synchronous linkage, realizing the simultaneous synchronous back and forth linkage control of the valves of the whole machine. In addition, the extremely fast circulation function of cooling and dissipating the heat of the explosion cylinder back and forth is realized. However, the three-way shunt decompression method and the non-directional synchronous converter control method are implemented at the same time, further realizing the uniformity and accuracy of the variable size of the medicine intake amount of each cylinder medicine door of the whole machine by synchronously and back and forth linkage.

[0018] Furthermore, the nature of the explosion event described above is a water explosion, and the fourth condition of the water explosion is: tongue rod extension control and on-off medicine gate valve control. The extension of the tongue rod controls the limited impact force range of the collision seat and the collision head. When the collision explosion exceeds the limited impact force range, the symmetrical left and right tongue rods will simultaneously avoid and retreat, avoiding the explosion damage of the hard support by the kinetic energy of the explosion. The same principle of overcoming hardness with softness is adopted. After accurately calculating the collision force limit value and the force limit value of the material limit stress, a feasible collision explosion avoidance and retreat technology is set up to ensure that all hardware of the tongue rod collision seat and the tongue rod collision head are intact. The valve control of the on-off medicine gate is that the tongue rod at the end of the collision seat is extended and retracted to control the rhythm of conveying the mucus liquid explosive. When it is extended, the medicine channel for conveying the mucus liquid explosive is connected and opened; when it is retracted, the medicine channel for conveying the mucus liquid explosive is cut off and closed. Therefore, a tongue rod telescopic valve is provided to synchronously control the opening and closing of the medicine delivery channel, thereby ensuring that the mucus liquid explosive can be squeezed out at the right time and collide and explode at the right time.

[0019] Furthermore, the nature of the explosion event described above is a water explosion, and the fifth condition of the water explosion is: isolation explosion. The isolation explosion adopts the method of collision of the same polar magnetic collision and repulsion rotation to accurately control the separation and isolation of the explosive at the tongue rod port and the explosive in the internal channel. On the tongue rod base, a magnetic rotating titanium alloy collision seat is provided, and the magnetic rotating titanium alloy collision seat is equipped with a diamond scraper and a permanent magnetic ring and a tension spring anti-rotation card key. The permanent magnetic ring of the titanium alloy collision head is connected to the same polar magnetic induction, and the same polar magnetic collision and repulsion rotation of a medicine hole angle deviation is generated. The scraper rotation that accurately cuts off the explosive occurs instantly before the collision, and is accurately positioned to block the connection between the internal and external explosives. It can be restored at the moment when the tongue rod avoids and retreats, ensuring that the medicine delivery channel is unobstructed, and accurately and effectively solving the problem of isolation explosion.

[0020] Furthermore, the nature of the explosion event described above is a water explosion, and the sixth condition of the water explosion is: a safety explosion-proof pressure-limiting valve. The safety explosion-proof pressure-limiting valve is provided inside the tongue rod at the collision head end to ensure safety when the symmetrical crankshaft spring piston transmission mechanism accidentally encounters a transmission failure. The safety explosion-proof pressure-limiting valve is composed of a valve ball, an adjustable force-limiting spring, a valve sleeve, internal and external water channels, etc. When the symmetrical crankshaft spring piston transmission mechanism is unable to dissipate the equivalent kinetic energy of the explosion, the safety explosion-proof pressure-limiting valve is forcibly opened by the impact force of the explosion, effectively releasing the explosion kinetic energy generated by the explosion, ensuring that the parts of the entire machine are not damaged and no safety accidents occur, and ensuring that the subsequent normal operation function of the explosion engine is not affected.

[0021] Furthermore, the above-mentioned suspended water explosion is developed based on the principle of spherical explosion radius and equal force equivalence, and the principle that the hard-attached explosion will be broken and injured. Therefore, an elastic telescopic device for the telescopic tongue to avoid and retreat is provided; a water medium flexible separation function is provided; a movable device for the transversely symmetrical separation piston is provided, etc., which jointly coordinate to complete the central suspended water explosion function.

[0022] Furthermore, the drainage described above is connected to a small steam turbine device, and a generator connection is provided on the shaft end of the small steam turbine device. When the high-temperature and high-pressure drainage passes through the steam turbine, it is used for secondary purposes such as work, cooling, and silencer. It can not only save energy and generate electricity and store it for self-use, but also effectively solve the problem of explosion noise and rapid cooling due to heat energy release. At the same time, a heat sink is connected to the steam turbine, and the working water of the turbine enters the heat sink for circulation and cooling. Then, the cooling water enters the large water cylinder, and the large water cylinder is provided with a water circulation support function.

[0023] Furthermore, the viscous liquid explosive described above is prepared from nitroglycerin and is a viscous liquid solution. The viscous liquid solution is viscous and insoluble in water for a short time. It can effectively adhere to the surface of the discharge port of the collision seat, and can cause an impact explosion within the effective impact force limiting range in water. Outside the impact force limiting range, no explosion will occur, ensuring the safety of the mobile vehicle. As for the preparation formula, it has nothing to do with the explosion engine technology and will not be explained. In addition, a high-energy high-crystalline film paste explosive is also provided. The high-energy high-crystalline film paste explosive is prepared from solid high-explosive explosives and is also suitable for explosion engines.

[0024] Furthermore, the impact force limit mentioned above is precisely controlled by the telescopic spring and magnetic seat device in the symmetrical tongue rod. The impact force limit value sets the spring telescopic force limit value and the like-pole repulsion magnetic force limit value, and the dual functions work together to ensure that the collision force is controlled within the explosion force limit range. It is required that an explosion occurs during the collision, and that the tongue rod has an ultra-high sensitivity automatic explosion-proof function of avoidance and retreat when the collision explosion occurs, to ensure that the tongue rod, collision seat, collision head, magnetic ring and other hardware are not damaged or injured by the explosion, thereby ensuring the continuous occurrence of relay explosions. Therefore, special materials such as titanium alloy, diamond, and carbon fiber are also used. Furthermore, the explosion engine is provided with a motor starting function, and the motor starting function is provided with a left and right crankshaft synchronous flywheel motor device. When the medicine pump is turned on and the medicine door is stepped on with a little force, a small amount of mucus liquid explosive will be squeezed out from the corresponding tongue rod collision seat port on the left side, and collide with the impact pin on the symmetrical tongue rod collision head, causing an underwater explosion, and the left and right symmetrical pistons of the explosion cylinder work and run outward in reverse synchronously at the same time, pushing the symmetrical mountain-shaped handle crankshaft spring piston transmission mechanisms in the left and right auxiliary cylinders of the main cylinder to rotate in reverse synchronously at the same time to start working, and then the explosion engine is started.

[0025] Furthermore, the main charge door of the explosion engine is provided with an asymmetric synchronous converter, which is the master control device of the charge door of the whole machine, and directly controls the diversion and decompression size of the diversion and decompression valves of all cylinders, and then controls the charge door in general. After being controlled by the asymmetric synchronous converter, the charge door of the whole machine can be controlled by just one foot. A cross spring slide is provided inside the asymmetric converter, and a servo motor camshaft rotation control device is provided at the intersection of the cross spring slide. When the camshaft rotates rhythmically and at a uniform speed, the charge door can be controlled by applying a downward sliding force to the camshaft rotation control device by stepping on the charge door pedal. The force applied to slide downward controls the expansion of the camshaft rotation control device, and the expansion of the camshaft rotation control device controls the expansion of the cross spring slide. On the cross spring slide, there are respectively provided a shunt pressure relief valve connecting rod connected to each cylinder medicine door. The expansion of the shunt pressure relief valve connecting rod has the function of controlling the amount of extruded medicine, and under the control of the alternating rotation force of the cam, a delay dislocation control function is provided to unify the whole machine medicine door. Therefore, by stepping on the medicine door pedal, the whole machine medicine door of the explosion engine can be controlled.

[0026] Furthermore, the explosion cylinder is provided with a base cylinder, which is slightly curved in the middle; the left and right piston cylinders are slightly tilted and straight downward. This structure is provided with a directional control function for the rotation direction of the crankshaft of the entire machine. It is also provided with an auxiliary function to avoid explosion damage to the tongue rod collision seat and the tongue rod collision head. Therefore, it cannot be set as a horizontal straight-through explosion cylinder, but the left and right sections are provided with piston working cylinders, and the piston working cylinder is called a water explosion working cylinder; the middle section is provided with a water leakage valve base curved cylinder, and it is provided with a precise ratio, and the base curved cylinder is called a water explosion base curved cylinder.

[0027] Furthermore, the explosion engine is provided with a main cylinder and an auxiliary cylinder. The main cylinder is provided with a main cylinder outer cylinder and a main cylinder inner cylinder. The main cylinder outer cylinder is a large water cylinder, which is provided with main functions such as water supply, water leakage, drainage, and cooling. The main cylinder inner cylinder is provided with a water explosion cylinder, and the water explosion cylinder is provided with a water explosion working cylinder. The water explosion working cylinder is provided with a piston working stroke, and the piston working stroke is provided with: collision stroke; power stroke; water leakage stroke and other three working strokes.

[0028] Furthermore, the collision stroke: when the water-blowout pistons return toward each other, explosives are squeezed out from the collision seat of the piston tongue rod at one end, and collide with the firing pin on the collision head of the piston tongue rod at the symmetrical end to explode. At this moment, the tongue rods on the left and right sides of the explosion cylinder return in the opposite direction to the working stroke of their respective piston handle rods, which is called the collision water explosion tongue rod avoidance and retreat working stroke, abbreviated as: collision stroke.

[0029] Therefore, the symmetrical tongue rod in the explosion cylinder is provided with a force-limited collision and telescopic function for explosion avoidance and retreat and a same-pole magnetic collision and rotation collision explosion function.

[0030] Furthermore, the working process is as follows: when a water explosion occurs in the center of a closed water cylinder, the explosion equivalent kinetic energy of the explosive is converted into high-temperature and high-pressure water kinetic energy, and then the high-temperature and high-pressure water kinetic energy explodes to push the left and right symmetrical mountain-shaped handle spring piston transmission mechanism to reverse outward to perform work, so as to symmetrically and equally consume the explosion kinetic energy, so that the symmetrical crankshafts rotate synchronously and equally to output power. The working stroke of the piston is called the simultaneous, synchronous, equal and symmetrical pushing piston working stroke, abbreviated as: working stroke.

[0031] Therefore, under the control of the longitudinal circumferential force of the explosion cylinder body, the symmetrical mountain-shaped handle spring piston transmission mechanism can dissipate the kinetic energy of the high-temperature and high-pressure water in the center explosion in a transversely symmetrical and equal manner, which will generate a strong transversely symmetrical and equal dissipation driving force. The transversely symmetrical and equal dissipation of the left and right pistons in the push cylinder to run in opposite directions outward and do work, which is called the water explosion dissipation method.

[0032] Furthermore, the water-breaking stroke: after a water explosion occurs in a closed water cylinder, the high-temperature and high-pressure vacuum oscillation generated by the shock wave has a piston resistance and secondary destructive force. In order to discharge the resistance and secondary destructive force of the pistons on the left and right sides of the explosion water cylinder, when the cross-sections of the pistons on the left and right sides of the cylinder run outward to the position of the drain valve and expose the position of the drain valve on the wall of the explosion water cylinder, the pistons on both sides reach the dead point. At this time, the drain valve will be opened by the high-temperature and high-pressure impact force of the vacuum oscillation to drain water. At the same time, due to the decompression of drainage in the explosion water cylinder, the water inlet valve in the water explosion base cylinder opens, and a water-breaking phenomenon occurs in which water is discharged on one side and water is inlet on the other side. The pistons on the left and right sides of the explosion water cylinder will return to each other synchronously at the same time. This return working stroke of the piston is called the water-breaking return stroke, or water-breaking stroke for short.

[0033] In addition, the high-temperature and high-pressure water and gas discharged by the drainage valve are connected to the steam turbine for secondary use, which is used to drive the steam turbine to output rotational power and drive the generator to generate electricity. In addition, it has the functions of silencing, cooling, self-sufficient power storage, and recycling water reuse.

[0034] Furthermore, the explosion engine described in the present invention is actually an invention of the rotary power technology of the explosion engine, also called a rotary power explosion engine. Correspondingly, there is also an invention of the direct driving force technology of the explosion engine, called an air compression power explosion engine. The explosion engine, in addition to the direct rotary power explosion engine, is widely used in mobile vehicles, using explosives to replace fuel, which is both environmentally friendly and efficient, and economical and affordable, and effectively solves the serious shortage of oil in my country. In addition, a large-scale fixed air compression power explosion engine can also be manufactured to match a gas turbine, which is specially used to drive a large generator group to generate electricity intelligently, indirectly converting the chemical energy of the explosive into electrical energy, and efficiently solving the problem of insufficient power supply and power shortage. The working principles of the two are similar, except that the transmission mechanism, the piston working stroke length, the piston structure, the engine is larger, etc. are different, and the rest are the same as the working principle of the explosion engine of the present invention. DETAILED DESCRIPTION

[0035] The present invention will be described in further detail below through a specific implementation example of a four-cylinder explosion engine.

[0036] The four-cylinder explosion engine is provided with a main cylinder and an auxiliary cylinder. The main cylinder is provided with one main cylinder outer cylinder and four main cylinder inner cylinders. The main cylinder outer cylinder is a large water cylinder, which is provided with main functions such as explosion support, explosion water supply, explosion high temperature balance, explosion silencer, etc. The main cylinder inner cylinder is provided with a water explosion cylinder, and the water explosion cylinder is provided with a working stroke, and the working stroke is provided with three working strokes: collision stroke; power stroke; water leakage stroke.

[0037] Furthermore, the water explosion cylinder described above is provided with 8 cylindrical titanium alloy cylinder bodies, which are respectively fixedly mounted on the left and right sides of the water explosion base curved cylinder of the main cylinder, and are arranged in a horizontal symmetrical manner in a straight line, and are slightly inclined. There are 4 water explosion base curved cylinders in the main engine, and the 4 water explosion base curved cylinders and the large water cylinder are provided with an integrated overall structure. The water explosion base curved cylinder is provided with a micro-arc, and the micro-arc is provided with an upward arch of 2.68°, and is in the shape of a cylindrical arch.

[0038] Furthermore, an upper water inlet valve device and a lower water inlet valve device are arranged on the central inner wall of the curved cylinder of the water explosion base. The upper and lower water inlet valve devices are provided with limited force spring expansion and contraction control. When an explosion occurs, the valve is closed by the impact force of the explosion; when the explosion cylinder drains water, the valve opens due to the pressure reduction in the explosion cylinder, and water leaks out, so that the left and right pistons of the explosion cylinder can return.

[0039] Further, the left and right ends of the water explosion base crank cylinder are provided with cylindrical titanium alloy cylinder body clamping annular grooves, the clamping annular grooves are provided with cylindrical titanium alloy cylinder bodies clamped and installed on the left and right sides, the adjacent horizontal left and right sides of the cylindrical titanium alloy cylinder body are provided with spring piston hydraulic cylinders, the spring piston hydraulic cylinder and the cylindrical titanium alloy cylinder body are provided with integrated mountain handle straight rod pistons, the left and right ends of the integrated mountain handle are provided with straight rod spring pistons, the middle is provided with an explosion cylinder straight rod piston, and the explosion cylinder straight rod piston is provided with a tongue rod, and the tongue rod is provided with a telescopic function to form a mountain handle spring piston. Correspondingly, the mountain handle spring piston is installed with the cylinder body corresponding to the whole to form a mountain handle spring piston transmission device. A crank neck is provided on the middle part of the outer end of the mountain handle spring piston transmission device, and a movably linked connecting rod is provided on the crank neck, and the other end of the connecting rod is movably linked to the crank of the crankshaft to form a crankshaft mountain handle spring piston transmission mechanism. Correspondingly, the crankshaft shank spring piston transmission mechanism is symmetrically installed on the left and right sides of the explosion cylinder, thus forming a symmetrical crankshaft shank spring piston transmission mechanism. The other cranks of the crankshaft are flexibly connected to the symmetrical shank spring piston transmission mechanisms of the other three explosion water cylinders, thus forming a symmetrical crankshaft shank spring piston transmission mechanism of the four-cylinder explosion engine. Further, the auxiliary cylinder is respectively provided with an equivalent crankshaft base, and the crankshaft base is provided with two cylinders and three bases to flexibly fix the crankshaft. An oil shell device is provided below the crankshaft, and oil is provided in the oil shell device, and the oil is provided with the function of lubricating the symmetrical crankshaft shank spring piston transmission mechanism. The auxiliary cylinder is provided with a sealing cylinder cover fixedly connected to the cylinder body, and the cylinder body is provided with a fixed connection to the main cylinder body to form an integral cylinder body structure. Further, on the cylinder bodies of the left and right auxiliary cylinders, small steam turbine devices are respectively provided, which are correspondingly connected to the drainage main pipes on the left and right sides of the explosion cylinder, and fixed on the main and auxiliary cylinder bodies. Generators are respectively provided on the shaft ends of the small steam turbine devices on the left and right sides. When the high-temperature and high-pressure drainage passes through the steam turbine, it is provided with secondary utilization functions such as one for work, two for cooling, and three for silencer. The steam turbine is provided with drainage correspondingly connected to the heat dissipation water tank, so that the cooling water of the heat dissipation water tank circulates into the large water tank, ensuring that the circulating water supply system of the large water tank is normal. The heat dissipation water tank can be provided at the front end or the rear end of the main engine.

[0040] Furthermore, a drain valve device is provided just above the piston dead point of the cylindrical titanium alloy cylinder body on the left and right sides of the main engine, and a force-limiting spring control is provided in the drain device. The cylindrical titanium alloy cylinder bodies on the left and right sides of the main engine are provided with straight rod pistons in a symmetrical crankshaft mountain-shaped handle spring piston transmission mechanism, which are provided with a movable sealing explosion cylinder function. Water is provided in the middle cylinder body in the explosion cylinder, forming an explosion water cylinder. The explosion water cylinder is suspended in the large water cylinder in a lower position. Furthermore, a spring force hydraulic cooling cylinder is provided on each of the left and right sides of the explosion cylinder, and the spring force hydraulic cooling cylinder is provided with a fixed connection to a hydraulic cooling conversion cylinder. A three-way diversion pressure reducing valve device is provided on the other port of the hydraulic cooling conversion cylinder and is fixedly connected. One end of the three-way diversion pressure reducing valve device is fixedly connected to a spring piston hydraulic cylinder, and the spring piston hydraulic cylinder is provided with a diversion pressure reducing function. The other end of the three-way diverter pressure reducing valve is provided with a fixed connection of a hydraulic fluid pipeline, the terminal of the hydraulic fluid pipeline is provided with a fixed connection of a sliding piston device, the stroke terminal of the sliding piston device is provided with a fixed connection of a three-way reversing valve device, one end of the three-way reversing valve device is provided with a fixed connection of a viscous liquid explosive box, and the other end is provided with a fixed connection of an explosive hose, the other end of the explosive hose is fixedly connected to the left mountain-shaped handle explosive channel interface, the interface is provided with an explosive channel connected to the tongue rod telescopic valve inside, completing the linkage drug delivery function. The viscous liquid explosive box is provided with a fixed connection of a drug pump device, and the drug pump device is provided with an explosive engine starting pumping function.

[0041] Furthermore, the crankshaft ends on the left and right sides of the machine body are provided with transmission shafts movably connected to the rotational power output device.

[0042] Furthermore, a fixedly connected collision seat is provided at the top of the tongue rod, and a movably sleeved titanium alloy diamond collision seat is provided on the outside of the collision seat. A positive magnetic ring is provided inside the titanium alloy diamond collision seat, and a negative magnetic ring is provided inside the collision head at the other end. A collision function of rotating the titanium alloy diamond collision seat with the same polarity is provided immediately before the two collide. The rotation angle of the collision with the same polarity is provided with an angle deviation of the magnetic rotation of one medicine hole position. An angle deviation stop point blocking key is provided on the angle deviation stop point blocking key. A rotating tension spring is provided on the rotating tension spring. The rotating tension spring is provided with a rebound reset function. The collision with the same polarity magnetic collision rotation method technology has the important function and effect of blocking the explosives in the medicine channel inside the collision seat from being exploded and causing rapid explosion.

[0043] Furthermore, the inner base of the tongue rod top collision seat is provided with three medicine outlet holes, and the inner base is provided with carbon fiber material and ultra-high temperature coating. The tongue rod is provided with a slip ring support, and the slip ring support is provided with a support function when the tongue rod is telescopically slidable.

Claims

1. An explosion engine, characterized in that: In the field of explosive engines, explosives are used to replace fuel, and an explosive explosion working mode is used to replace the fuel combustion working mode. The chemical energy of explosives is converted into mechanical energy by simultaneously and synchronously cutting the equivalent kinetic energy of the explosive explosion, and a mechanical device is used to symmetrically push and consume it. This realizes an effective water explosion, converts the chemical energy of explosives into mechanical energy, and outputs the original motive mechanical energy. The explosive engine has been invented, which has achieved comprehensive functions and cost-effectiveness that are n times beyond the existing combustion engines, and further meets the maximum and fastest demands of mobile vehicles and fixed machinery for power and speed.

2. The water explosion according to claim 1, characterized in that: The water explosion working stroke process of the explosion engine includes three stroke processes: collision stroke, power stroke, and water leakage stroke.

3. The mechanical device according to claim 1, characterized in that: The utility model comprises mechanical devices such as an explosion linkage mechanism, an explosion cylinder and a symmetrical push transmission mechanism which can simultaneously and synchronously divide and eliminate the explosions.

4. The collision stroke according to claim 2, characterized in that: When the piston tongue rod collision seat at one end collides and explodes with the piston tongue rod collision head at the symmetrical end, a force-limited collision and telescopic function of explosion avoidance and retreat and a collision same-pole magnetic collision and rotation explosion function are provided.

5. The power stroke according to claim 2, characterized in that: When a water explosion occurs in the center of a closed water cylinder, the explosion equivalent kinetic energy of the explosive is converted into high-temperature and high-pressure water kinetic energy, and then the high-temperature and high-pressure water kinetic energy explodes and pushes the left and right symmetrical mountain-shaped handle spring piston transmission mechanism to run outward in reverse to do work, so as to symmetrically and equally consume the explosion equivalent kinetic energy, so that the symmetrical crankshafts rotate synchronously and with equal force at the same time to output the original power of mechanical energy.

6. The water-blow-off stroke according to claim 2, characterized in that: In a closed water cylinder, there is a central water explosion symmetrically pushing the pistons on the left and right sides of the explosion cylinder to reach the dead point. The drainage valve is provided with the function of opening the valve to drain water due to the high temperature and high pressure force remaining after the work. At the same time, there is a water inlet valve that is opened due to the decompression of the water in the explosion cylinder, forming a water-penetrating technical method of draining water on one side and letting water in on the other side. When the pistons on the left and right sides of the explosion cylinder return to each other synchronously at the same time, the piston tongue rod collision seat at one end is provided with the tongue rod collision head at the other end to relay and collide with the water explosion, forming a continuous relay working state. In addition, in the drainage process, a mixture of high temperature and high pressure water and gas is provided, and the mixture of high temperature and high pressure water and gas is provided with a secondary utilization of impulse turbine rotation to drive the generator to generate electricity. The secondary utilization is provided with functions such as silencing, cooling, self-sufficient power storage, and cooling water recycling.

7. The explosion linkage mechanism according to claim 3, characterized in that: The explosion linkage mechanism is provided with a spring piston hydraulic cylinder, a sliding piston, a coolant conversion cylinder, a three-way diversion pressure reducing valve, a spring piston cylinder, an asymmetric synchronous converter, a three-way reversing valve and other devices, which coordinately complete the linkage unity of the synchronous timing function of the whole machine, thereby controlling the explosion linkage mechanism of the whole machine.

8. The explosion cylinder according to claim 3, characterized in that: A large water tank is arranged outside the explosion cylinder, and the large water tank is provided with water. The water in the large water tank is provided with main functions such as explosion water supply, explosion high temperature counterbalance, and explosion silencing. The explosion cylinder is provided with a three-section controlled closed cylinder body, the middle section is provided with a water explosion base curved cylinder, and the left and right ends are provided with a mountain-shaped handle spring piston piston transmission mechanism explosion working cylinder. The explosion cylinder is provided with a water explosion base curved cylinder and an explosion working cylinder, all of which are provided with basic functional characteristics such as support, strong foundation, solid force, force limit, water medium, and water leakage to realize explosion work.

9. The symmetrical push transmission mechanism for simultaneous and synchronous equal division and elimination according to claim 3 is characterized in that: Transmission pistons are arranged at both ends of the explosion cylinder, and the transmission pistons have a symmetrical pushing function for equally dividing and dissipating the kinetic energy of the explosion.

10. An explosive engine, the extended protection feature of which is that: an explosive engine is invented by using explosives as engine energy and adopting an explosive explosion mode, and the explosive engine is provided with an air compression power explosive engine in addition to a mechanical energy original power output mode of a rotary power. Therefore, any explosive explosive engine realized under the guidance of the spirit and principle of the explosive engine of the present invention is within the protection scope of this application.