RU2321719C2 - Well drilling method and device - Google Patents

Abstract

FIELD: mining, particularly well drilling methods and devices, namely drilling by use of heat, flame drilling.

SUBSTANCE: method involves obtaining hydrogen and oxygen by water electrolysis; supplying hydrogen and oxygen in combustion chamber with the use of compressor and converting combustion heat into working body heat to melt rock; inflaming and blasting detonating gas to create blast wave and to convert blast product energy into mechanical energy to rotate blades of rotor arranged in combustion chamber and connected with drilling screw installed outside of combustible chamber. Exhausted blast products are delivered to face to improve melted rock mass removal from well bottom to ground surface by means of electric pump. Device comprises derrick, drill pipes, power drive, tripping equipment, pump and drilling assembly. Supply chamber of drilling assembly is connected with electrolyzer vessel through oxygen and hydrogen supply pipelines. Drilling assembly is shaped as wolfram or molybdenum cylindrical vessel with molded air-tight end closures threadedly connected with the vessel. Longitudinal water cooling jacket channels are formed inside cylinder walls. Inserted in the vessel is rotor having blades, which separate vessel into four chambers. Reed switch is connected to inner vessel surface to provide automatic detonating mixture inflaming to blast content of one vessel chamber. Electrolyzer comprises accumulation vessel, vacuum cylinders with vacuum control means and vacuum pumps.

EFFECT: increased productivity and drilling efficiency, as well as extended technological capabilities.

2 cl, 32 dwg

Description

The method and device relates to the mining industry, in particular to devices for drilling wells.

A well-known thermal method of drilling wells, carried out by melting rocks by feeding into the drill a hydrogen-oxygen mixture, which is ignited in the apparatus to obtain high temperature. Oxygen and hydrogen are produced by electrolysis of water in a mobile unit near the well itself and fed into the apparatus through appropriate flexible pipelines (USSR AS No. 73175, 1946).

A device for drilling wells, including a drilling rig, drill pipes, power drive, equipment for hoisting operations, a drill, the power chamber of which is connected to the capacity of the electrolyzer through gas pipelines for supplying hydrogen and oxygen (AS USSR No. 73175).

The disadvantage of this method and device is low productivity, high energy and money costs for drilling operations.

The aim of the invention is to increase productivity and increase the efficiency of devices and expand technological capabilities, reducing the cost of money for drilling operations.

The goal is achieved in a way where the supply of hydrogen and oxygen is provided through a compressor. Explosive gas in the combustion chamber is ignited and exploded, creating a shock wave and converting the energy of the explosion products into mechanical energy to rotate the blades of the rotor located in the combustion chamber associated with the drill screw located outside the combustion chamber, while the waste products of the explosion are discharged through the lower base of the cylindrical body of the drill shell to improve the removal of molten rock mass from the bottom of the well to the surface through the hollow holes of the shaft on which the screw is fixed, by electric pump.

The goal is achieved by the device. The device is equipped with a pump. The drill has a cylindrical shape, made of molybdenum or tungsten in the form of a tank with cast sealed end caps, connected to the tank by screw connections. Inside the walls of the cylinder parallel to each other at equal distance from each other are the longitudinal channels of the water cooling jackets, sequentially interconnected by U-shaped channels located in the molded end caps through gaskets. Inside the tank there is a rotor connected to the rotary shaft and rotatably mounted on the shaft, the blades of which divide the tank volume into four chambers, a reed switch mounted on the inner wall of the tank, connected to the spark plugs using an electric circuit, made with the possibility of igniting the explosive mixture in automatic mode for explosion in one of the chambers of the tank, while the electrolyzer includes an accumulation tank, vacuum cylinders with a vacuum regulator, vacuum pumps, and drill pipes in the cross section are shaped circles, oval, polygon or paired from two pipes and connected to each other in a single highway.

The novelty of the claimed technical solution in comparison with the known ones is due to the fact that due to the combined method of drilling, hydrogen and oxygen are supplied to the combustion chambers of the drill using a compressor, explosive gas is ignited, exploded, a shock wave is generated, and the energy of the explosion products is converted into mechanical energy for rotation of the rotor blades and propellers, incandescent products of explosion with a very high temperature are removed through the lower base of the cylindrical body of the drill downhole, it provides increased productivity and work efficiency, reduced drilling time and creates the possibility of drilling wells of different diameters to great depths and improving the removal of molten rock mass from the bottom of the well.

Due to the hollow shaft of the rotor, electric pump and sludge pipe, the liquid mass of molten rocks is removed from the bottom of the well to the surface of the earth.

Due to the configuration of the combustion chamber, the inner and outer sides will have a rigid base and withstand a blast wave and gas pressure. The pressure on the back side will be minimal. The shock wave pressure and gas pressure will be concentrated on the moving front side of the rotor blade, where the explosion energy will be converted into thermal and mechanical energy to rotate the rotor and the drill screw, automatically turning, translating them and exhausting the hot products of the explosion from the body to the bottom.

By lubricating the ends of the rotor blades, friction, resistance and obstruction to the movement of the rotor blades in the cylinder are reduced, wear of the rubbing ends of the rotor blades is reduced, and productivity is increased.

Due to the use of a drill equipped with rotor blades dividing the cylinder into four chambers, it is possible to operate in a 4-stroke mode: suction, compression, expansion, exhaust gas exhaust. The engine is powered by explosive gas — the conversion of gas into the heat of the working fluid for melting rocks and the conversion of the heat of the working fluid and high pressure of the shock wave during the explosion into mechanical work into the rotational movement of the drill screw equipped with chisel-shaped blades and the supply of exhaust gases (water vapor) ) under the drill to improve the removal of the liquid mass of molten rocks, mixing them with water vapor.

Due to the hollow shaft of the rotor, the molten rock is removed from the bottom of the well to the earth’s surface using a slurry pipeline and pump, the specific gravity of the rock is changed, and the molten rock mass is removed from the bottom of the wells to the ground.

Due to the explosion of detonating gas in the chambers, a large amount of energy is released in a limited volume in a short period of time, it fills the chamber volume, turning into a very heated gas and shock wave, the gas pressure in all directions is equal.

Due to the triangular-shaped chamber, where the two sides, the outer and the inner, will have a rigid base, opposing blast waves and pressure, and the third side is made movable. On an acute angle, the pressure will be minimum, and on the radial side, maximum. The pressure of the shock wave will be concentrated on the moving side of the triangular chamber, which will facilitate the conversion of the pressure of the flow explosions into the mechanical energy of rotation of the chisel-shaped blades of the screw mechanism.

Due to reed switches, a permanent magnet and spark plugs, an explosive mixture (hydrogen and oxygen) is ignited in the combustion chamber in an automatic mode.

Due to the combustion chambers, in the cross section having the shape of a triangle, the translational rotation of the rotor drum is ensured.

In the study of the claimed technical solution in comparison with the known patent, scientific and scientific-technical materials, such a combination of features was not found that allows us to judge the novelty of the essential features.

The invention is illustrated by drawings, where:

figure 1 shows the device of the oil rig;

in Fig.2. The scheme of the drilling rig is shown;

figure 3 shows a diagram of the batteries of a cell with plate electrodes;

Figures 4 and 5 are the same with corrugated electrodes;

Fig.7 is the same with the cell electrodes;

in Fig.8 is the same with plate electrodes;

Figures 9 and 10 are the same with brush-shaped electrodes;

11, 12, 13 - the same with the cell electrodes;

on Fig shows the connection of the cell with a brush-shaped electrodes;

on Fig depicts a cellular honeycomb electrode;

on Fig and 17 shows a comb electrode;

on Fig depicts a tubular electrode;

on Fig shows a cross section of the drill pipe in the form of a circle;

in Fig.20 - the same, in the form of a polygon;

in Fig.21 shows the connection of pipes in the form of half rings;

in Fig.22 shows the connection of the pipes in cross section in the form of polygonal half rings;

Fig.23 shows a device for a water electrolyzer;

on Fig shows the connection of the electrodes in the battery;

on Fig depicts a battery of electrodes;

on Fig shows a cross section of a drill according to the first embodiment;

in Fig.27 - the same, according to the second embodiment;

on Fig - the same, according to the third embodiment;

in Fig.29 - the same, according to the fourth embodiment;

in Fig.30 - the same, according to the fifth embodiment;

in Fig.31 - the same, according to the sixth embodiment;

on Fig - the same, a longitudinal section of a drill.

The device consists of stationary or mobile self-propelled drilling rigs 1, equipment 2 for mechanizing well drilling, drill pipes 3, drill 4. Drill 4 is rigidly connected to the drill pipe 3 using screw connections. A winch 5 is located on the oil rig 1, equipped with two electric motors 6 and several tanks 7 of the device for splitting / electrolysers / water into hydrogen and oxygen. In the container 7 is a battery 8 with plate electrodes 9, they are parallel to each other, between them there is a proper gap and different polarity.

The electrodes 10 in the battery 8 can be made in the second embodiment. The second option is the same as the first option, differs from it in that the electrodes are perforated and mounted parallel to each other, between them there is a gap and different polarity.

The electrodes 11 in the battery 8 can be made in the third embodiment. The third option is the same as the second option, differs from them in that the electrodes 11 are corrugated, installed in the battery parallel to each other, there is a gap and a different polarity between them.

The electrodes in the battery 8 can beat made in the fourth embodiment. The fourth option is the same as 1-3 options, differs from them in that the electrodes 12 are made brush-shaped, their needles are directed to the base of the opposite plates.

There is a gap and a different polarity between the base of the plates and the ends of the needles. The electrodes 12 are made of stainless steel on injection molding machines.

The electrodes 12 in the battery 8 can be made in the fifth embodiment. The fifth option is the same as the fourth option differs from it in that the needles of the electrodes 12 are directed at each other, there is a gap of different polarity between the ends of the needles.

The electrodes 13 in the battery 8 can be made in the sixth embodiment. The sixth option is the same as the first option, differs from it in that the electrodes 13 are cell. The cells of the electrodes 13 can be in cross section in the form of a circle or oval, square, rhombus, polygon, made on injection molding machines. Between the cell electrodes 13, brush-shaped electrodes 12 are installed, on both sides of their needles are installed in the center of each cell. Between the needles and the walls of the cells there is a gap and a different polarity.

The electrodes 14 in the battery 8 can be made in the seventh embodiment. The seventh option is the same as the sixth option, differs from it in that the electrodes 14 are made in the form of cell honeycomb electrodes containing a diaphragm inside, similar to a honeycomb. Between the cell honeycomb electrodes 14 and the diaphragm and the needles of the brush-shaped electrodes there is a gap and different polarity.

The electrodes 15 in the battery 8 can be made in the eighth embodiment. The eighth option is the same as the seventh option, differs from it in that the electrodes 15 are made in the form of scallop electrodes containing longitudinal plates, arranged in a row, needles rigidly fixed to them. The needles of the scallop electrodes 15 are mounted in such a way as to give the cells a proper shape, for example, the shape of a square, or a circle, oval, rhombus, polygon. Between the comb electrodes 15, brush-shaped electrodes are mounted on both sides. Their needles are installed in the center of each cell of the electrodes 15. There is a gap and a different polarity between the needles.

The electrodes 16 in the battery 8 can be made in the ninth embodiment. The ninth option is the same as the eighth option, differs from it in that the electrodes are made tubular from the outer and inner tubes, coaxially arranged relative to each other. The outer tubes 16 of the electrodes are rigidly interconnected into a battery and have a cross section in the form of a circle, oval, square, rhombus, polygon. Inside them are located internal tubular electrodes having a cross section similar to that of their outer tubular electrodes. The inner tubular electrodes are rigidly fixed to the frame. Between the outer and inner tubular electrodes, there is a gap and a different polarity. The electrodes are interconnected through an opening on the electrodes and dielectric washers 17 using bolts 18 and nuts 19 and spring-loaded split washers.

The drill 4 (Fig.26-32) consists of three parts: a cylinder 20, a rotating rotor 21, a drill screw 22. The cylinder 20 is equipped with an upper and lower cover 23. The drill 4 consists of a cast cylinder 20 made of molybdenum or tungsten on foundry machines under pressure. In the cylinder 20, a rotor 21 is installed with the blades 24 rigidly fixed to the hollow shaft 25. The hollow shaft 25 consists of two pipes coaxially located relative to each other. The Central hollow pipe 26 is a sludge pipe designed to remove molten rock mass from the bottom of the well to the surface. The interwall space 27 of the hollow shaft 25 is designed to supply oil for lubricating the friction surfaces of the blades 24 in the cylinder 20. The blades 24 divide the capacity of the cylinder 20 into four equal chambers 28, 29, 30, 31. The chamber 28 is designed to suck and feed a suitable portion of hydrogen gas and oxygen. The chamber 30 is designed to ignite an explosive mixture in automatic mode, burn, create explosions of proper power, acting by the products of an explosion and a shock wave on the rotor 21, providing rotation and rotation of it and the drill screw 22, converting hydrogen and oxygen (detonating gas) into the heat of the working fluid , then into mechanical energy, an explosion releases a large amount of energy in a limited volume in a short period of time with high pressure. The chamber 31 is designed to exhaust explosion products from the shell body 4 to the face through the lower base of the cylindrical body of the shell 4 to the face to transfer high thermal energy to melt rocks and remove molten rock mass from the bottom of the well to the surface through hollow openings of the shaft 24, on which fixed drill screw 22, by means of an electric pump. At the same time, the high energy of the explosion products and the high temperature of the drill 4 and the screw 22 melt the rocks, turning them into a liquid mass, and removes to the surface through the hollow holes of the shaft 25, on which the drill screw 22 is fixed, using an electric pump. The hot drill screw 22, melting the rock, is easily screwed into its mass. In the walls of the cylinder 20 there is a water jacket 32, consisting of longitudinal channels 33 located parallel to each other at an equal distance from each other around the perimeter of the cylinder 20 and sequentially connected to each other using U-shaped channels 33 located in the molded end caps 23 through gaskets 34 using screw connections. The rotor 21 is rigidly fixed to the shaft 25. The working body 21 operates in the following mode: the flow of the combustible mixture into the chamber 28, the rotation of the rotor 21, the ignition of the combustible mixture of explosive gas, the explosion, the effects of explosion products and shock waves on the rotor 21, providing rotation and exhaust products explosion from chamber 31 to the face under a drill. The interwall space of the shaft 25 in the center has a rigid partition and an opening in the upper base for oil supply for lubricating the ends of the blades 24 and the inner surface of the walls of the cylinder 20, and in the lower base there are openings for removing exhaust gases - combustion products with a high content of thermal energy and high pressure combustion products under the drill along the interwall space of the shaft 25. The suction feed chamber 28 is connected to the capacity 7 of the electrolyzer or device for splitting water through gas pipelines 36, 37, a vacuum ball He 38, a vacuum pump 39. The vacuum -ballon 38 is provided with a vacuum-regulator 40. The gas pipeline 36 for feeding hydrogen. The gas pipeline 37 is designed to supply oxygen. A reed switch 41 is mounted in the walls of the chamber 28, it is connected to the spark plugs through the ignition coil 43 using an electric circuit powered by a battery or generator 44. Oil is supplied from the tank 45 to the ends of the blades 24 by gravity as it flows down the oil pipe 46 through the glands 47, oil channels 48. In the chamber 28 in the wall at the end of the gas pipelines 36 and 37 there are non-return inlets 49, and in the pipe 50 there is a non-return valve 51 for removing exhaust gaseous products of combustion. Each chamber 28-31 can be made in the second option. The second option is the same as the first, differs from it in that one side of the blade 24 of the rotor 21 is straight, the other side is curved in the shape of an arc.

Each camera 28-31 can be made in the third embodiment. The third option is the same as the first option, differs from it in that all sides of the blade 4 of the rotor 21 are curved in the form of arcs.

Each chamber 28-31 can be made in the fourth embodiment, the fourth option is the same as the first option, differs from it in that the ends of the blades 24 of the rotor 21 are equipped with shoes 52, which are tightly pressed against the walls of the cylinder 20 by means of flat leaf springs. Made with the possibility of creating an obstacle to the penetration of gases from one chamber to another.

The shell of the projectile 4 is connected to the pipes of the borehole 8 by means of screw connections through a heat insulator 52 and a crucifier 53. On each blade 24 there is a permanent magnet 54 interacting with the reed switches 41. It is made with the possibility of closing and opening the electric circuit supplying the spark plug 42 through the ignition coil 43 Tank 55 is filled with alkaline distilled water. It is connected to the capacitances 7 of the electrolyzer using a water supply 57 and valve 58 and is equipped with a liquid level regulator. In the upper base, vacuum cylinders 38 are connected to the reservoir with hydrogen storage 59 by means of a gas pipe 36 and a vacuum pump 39. The lower base of the vacuum cylinder 38 is connected to the reservoirs by storage of oxygen 60 using a gas pipeline 37 and vacuum pump 39. The chamber 28 is connected to containers 59 and 60 drives using compressors 61 and 62 and pipelines 36 and 37 through check valves 49. The channels 33 of the water jackets 32 are connected to the tank 63 using an electric pump 64 and a water pipe 65. The battery 8 of the cell is equipped with legs 66 and side stops 67, made made of dielectric material. The anodes of the electrodes are interconnected, the cathodes of the electrodes are interconnected and the source 68 of alternating current through a rectifier 69. It is made with the possibility of converting alternating current into direct current. Each tank 7 is connected to a tank 55 filled with weak alkaline distilled water using a water supply 57. The liquid level in the tanks 7 is maintained automatically by a fluid level controller located at the end of the pipe 57. The drill pipes 3 in cross section may have the shape of a circle, polygon or oval or paired and made in the form of half rings 70. Semi-ring pipes are paired and connected in the lower base using the hole 71. They are made with the possibility of supplying cold water under pressure to one pipe deep wells using a pump and receiving water vapor from another pipe, and pipes 3 having the shape of a circle or oval, polygon, contain a hole 71 to the valve 72. The hollow shaft 25 is connected using a slurry line 74.

The device operates as follows. Drilling tower 1 is moved, mounted and installed in a given area. Pipes 3 are rigidly connected to the projectile 4 by screw connections or welding. The electric circuit that feeds the electric motor 6 of the winch 5 is closed, the drill pipe 3 is moved and installed from horizontal to vertical. We make installation of all devices. We open all valves 58 in pipes 57 and gas pipelines 36 and 37. Weak alkaline water moves from tank 56 to all tanks 7 of electrolytic cells or devices for splitting water into hydrogen and oxygen by gravity pipe 57 to an appropriate level. Maintaining a predetermined fluid level is carried out automatically using a fluid level controller mounted on the ends of the tubes 57. We close the electric circuit supplying electrodes 9-15. When passing an alternating electric current from a source 68 through a rectifier 69, the alternating electric current is converted to direct current. When direct current passes through the electrodes of alkaline distilled water, water decomposes. The electric current in the electrolyte represents the process of movement of ions to electrodes 9 or 10-16. Cations move to the cathode, and anode cations move to the anode. The electric current in the external circuit is the process of movement of the electrodes from the anode to the cathode. At the cathode and anode, ions are neutralized, which leads to the formation of atoms and molecules and hydrogen and oxygen. There is no salt or other impurities in distilled water, therefore, no precipitate or salt deposits remain on the electrodes. In distilled water, insufficiently stable molecular and ionic bonds, therefore, there is an acceleration of the splitting of water into hydrogen and oxygen. The vacuum regulator 40 maintains the specified parameters of the vacuum in the vacuum cylinder 38 and tank 7 and controls the operation of the vacuum pumps 39 in automatic mode. Vacuum pumps 39 create a reduced pressure in the vacuum cylinder 38 and the capacity of the cell 7. Using vacuum in the tank 7 of the cell, hydrogen and oxygen are extracted during the electrolysis and the gases are transferred to the vacuum cylinder 38. From all the vacuum cylinders 38, hydrogen is separated from oxygen due to the difference in the specific gravity of gases. Then, hydrogen from all the vacuum cylinders is transferred to the tank 59 through the gas line 36 using the vacuum pumps 39, and oxygen from all the vacuum cylinders 38 is transferred to the tank 60 through the gas pipeline 37 using the vacuum pumps 39. Using the compressor 61, 62 hydrogen and oxygen moves into the chamber 28, fill it and create pressure. The blade of the rotor 21 from the gas pressure rotates around its axis and moves the gas into the chamber 29, then moves into the chamber 30. In this case, the blade 24 of the rotor 21 with the help of a permanent magnet 54 mounted in its cavity interacts with the magnetic field on the reed switch 41, the electric closes circuit feeding coil 43 and spark plugs 42. Spark plugs 42 create a spark where ignition and detonation of detonating gas occur. A large amount of energy is released in a limited amount in a short period of time. Strongly compressed gaseous combustion products, filling the entire chamber volume and creating a shock wave, generating thermal energy, act on the blades 24 of the rotor 21, rotate the rotor 21 and the drill screw 22, converting in-line explosions into mechanical energy into rotation of the chisel-shaped blades of the screw 22, create an exhaust product explosion from the shell body 4 to the bottom, providing heating of the drill string to a high temperature and melting of rocks, improving the removal of molten rock mass from the bottom of the borehole to the surface through hollow holes 25 and on which is fixed the drilling screw 22, by an electric pump 73. The chamber has a rigid base on its outer and inner sides, opposing reliably blast wave. The acute angle will take on minimal pressure, and the radial moving side takes on all the energy of the shock wave and helps to convert the pressure of the flow explosions into the mechanical energy of rotation of the blades of the screw mechanism 22. Due to the combined method, high performance is ensured. The shell of the projectile 4, the rotor 21, the drill screw 22, the cover 23, the blades 24, the hollow shaft 25, the sludge conduit 26, the reed switch 41, the spark plug 42, and the electrical circuit are made of heat-resistant construction made of molybdenum or tungsten. The device operates in the following mode: the flow of hydrogen and oxygen into the chamber 28, the rotation of the rotor, the ignition of a combustible mixture of explosive gas, the explosion, the impact of the products of the explosion and the shock wave on the rotor, ensuring its rotation and the exhaust of the explosion products from the body to the bottom to improve mountain melting rocks, heating the shell of the shell and removing molten rock mass from the bottom of the well to the surface through the hollow holes of the shaft 25, on which the drill screw 22 is fixed, by means of an electric pump 73. e explosion products, mixed with the molten mass of rocks, change their specific gravity, pushing the molten liquid mass upwards. Using a pump 73, liquid sludge is removed from the bottom of the borehole along the central hollow portion through sludge conduit 74 to the surface of the earth. Under the influence of the weight of the pipe columns, a combined method of drilling wells, the effect of rapid immersion of the pipe columns 3 in the rocks is formed, productivity is increased, labor costs are reduced and the possibility of drilling large diameter wells is created.

To obtain renewable thermal energy in places where the earth’s crust is broken, where continental plates diverge or where geysers exist, wells are made, and twin pipes are installed in the form of two half rings in cross section. In the holes 71, the valves 72 are removed. Either the drill pipes 3 are connected and the wells are drilled from different places at a certain angle of inclination, and connected underground in the lower layers of the earth's crust, they are shot through the windows of the holes 71 from an electric pistol with armored bullets towards each other. Then, under pressure, cold water is supplied to one pipe 3, water moves through holes into another pipe, during the movement of water it is heated in the lower layers of the earth's crust and turns into water vapor, it is supplied to steam turbines, where thermal energy is converted into mechanical energy, then into electrical energy using an electric generator (not shown in the drawing) or used to heat residential buildings, industrial and public buildings and greenhouses.

The goal is achieved in a way where the supply of oxygen and hydrogen is provided by means of compressors 61 and 62, explosive gas in the combustion chamber 30 is ignited and exploded, creating a shock wave that converts the energy of the explosion products into mechanical energy for rotation of the blades of the rotor 21 connected in the combustion chamber, connected with a drill screw located outside the combustion chamber 22. In this case, the waste products of the explosion are discharged through the lower base of the cylindrical body of the drill 4 to the bottom to improve removal of p molten rock mass from the bottom of the well to the surface through the hollow holes of the shaft 25, on which the drill screw 22 is fixed, by means of an electric pump 73.

Claims (2)

1. A method of drilling wells, according to which directly at the drilling site during operation, hydrogen and oxygen are obtained by water electrolysis, hydrogen and oxygen are supplied through various gas pipelines to the combustion chamber, where the heat of combustion is converted into the heat of the working fluid, providing rock melting, characterized in that the supply of oxygen and hydrogen is provided by means of a compressor, explosive gas in the combustion chamber is ignited and exploded, creating a shock wave and converting the energy of the explosion products into mechanical energy for rotation of the blades located in the rotor combustion chamber associated with a drill screw located outside the combustion chamber, the waste products of the explosion are diverted through the lower base of the cylindrical body of the drill to the bottom to improve the removal of molten rock mass from the bottom of the borehole to the surface through hollow shaft openings on which the drill screw is fixed by means of an electric pump. 2. A device for drilling wells, including a drilling rig, drill pipes, a power drive, equipment for tripping, a drill, the power chamber of which is connected to the electrolytic tank through gas pipelines for supplying hydrogen and oxygen, characterized in that the device is equipped with a pump, a drill has a cylindrical shape, made of molybdenum or tungsten in the form of a container with molded sealed end caps connected to the container by screw connections, inside the cylinder walls parallel to each other to each other and at an equal distance from each other are the longitudinal channels of the water cooling jackets, connected in series with each other by means of U-shaped channels located in the molded end caps through gaskets; inside the tank there is a rotor connected to the shaft with a rotary screw rotatably rotatable which divide the tank volume into four chambers, a reed switch mounted on the inner wall of the tank is connected to the spark plug using an electric circuit, made with the possibility of ignition explosive mixture in an automatic mode for explosion in one of the chambers of the tank, while the electrolyzer includes an accumulation tank, vacuum cylinders with a vacuum regulator, vacuum pumps, and drill pipes in the cross section are in the form of a circle, oval, polygon or paired of two pipes and interconnected into a single highway.

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