WO2003074841A1

WO2003074841A1 - Water production, heating supply, air condition and electric power generation system

Info

Publication number: WO2003074841A1
Application number: PCT/CN2003/000163
Authority: WO
Inventors: Maosen Lin
Original assignee: Maosen Lin
Priority date: 2002-03-04
Filing date: 2003-03-04
Publication date: 2003-09-12
Also published as: AU2003221206A1; CN1442611A

Abstract

A water production, heating supply, air conding and electric power generation system consists of a low temperature pressure generator unit, a cryogenerator unit, a producing water unit, a cryogenically produced nitrogen unit and a heating unit which are connected by pipelines. While producing water by condensing air with a low temperature refrigerating apparatus, the system supplies heating and air-conditioning, and generates electricity. Since using closed-circuit, there is no energy cost while operating.

Description

Temperature difference condensing water heating, air conditioning, power generation system

The present invention relates to a water-making, heating, air-conditioning, and power generation system, and in particular, to a water-making, heating, air-conditioning, and power generation system using water in a low-temperature refrigerator to condense air.

Background technique

For a long time, deserts and plateaus have suffered from drought and water shortage, cold and heat, and lack of electricity. Water is collected by collecting rainwater and snowwater or imported water. The main disadvantages of the above two methods are long-term storage of rainwater and Snow water will deteriorate the quality of the water; the incoming water, after long and long-distance transportation, the water quality is not good and the cost is high; the cold, heat, and lack of electricity caused by annual drought cause great difficulties for human survival; At present, the device that provides power to a turbo-generator is still a boiler, and its "heated working medium" is water, which is heated and vaporized to generate high-pressure steam to drive a steam turbine to generate electricity. It consumes not only a large amount of water, but also a large amount of energy such as oil, coal, and natural gas used to heat water. Not only does it take a lot of manpower and money to extract, transport, and store these energy sources, but the exhaust gases and waste residues they emit after combustion also pollute the environment. The shortcomings of the "One Energy Device" that I applied for on February 24, 2000 are: because of the installation of multiple gas-liquid exchangers, the device increases in size and cost, and because the pressure-reducing cylinder is located in the gas-liquid exchanger At the lower end, it is difficult for the liquid cryogenic working fluid to smoothly return to the gas-liquid exchanger under the same pressure state, which makes the operation of the device difficult. In addition, when a "energy device" is operated for a long time, the cold energy consumption cannot be supplemented.

Summary of the Invention

In view of the above facts, the object of the present invention is to provide a more scientific and reasonable solution to utilize a low-temperature refrigerator on-line system for heating, air conditioning, and power generation while condensing air to produce water, so that droughts such as deserts and plateaus lack water, cold, and heat. Impermanence, lack of power in the area, get clean and cheap cold, hot and cold, hot air and plenty of electricity.

The temperature difference condensing water heating and air-conditioning power generation system provided by the present invention is a gas-liquid exchanger treated with ceramic heat-insulating varnish, an isobaric liquid-filling injector treated with ceramic heat-insulating varnish on the shell, and a low-temperature-resistant metal material. Made of low temperature pressure generator, gas turbine treated with ceramic heat insulation paint, temperature difference condensing water generator made of low temperature resistant metal material and air conditioner cold air generator, water storage tank, fan made of heat insulation material Steam generators treated with ceramic heat-insulating paint for vortex tube refrigerators Steam hot water storage tanks treated with ceramic heat-insulating paint, fans and pipes treated with ceramic heat-insulating paint on the exterior, wind treated with heat-insulating materials on the exterior The temperature difference condensing water heating and air-conditioning power generation system further includes a low temperature pressure generating device, a cold energy power generating device, a temperature difference condensing water generating device, and a low temperature nitrogen heating device; The low-temperature pressure generating device includes a gas-liquid exchanger treated with ceramic heat-insulating varnish, a constant-pressure-diffusion injector treated with ceramic heat-insulating varnish for the shell, and a pipeline controlled by a solenoid valve treated with ceramic heat-insulating varnish on the exterior The gas-liquid exchanger is a hollow spherical shell made of a low-temperature-resistant metal material such as high-manganese low-carbon steel. A through hole is set in the upper and lower centers of the hollow spherical shell of the gas-liquid exchanger. The nitrogen outlet at the through hole on the hollow spherical shell of the exchanger passes through the pipeline and the two nitrogen inlets controlled by the solenoid valve at the top of the group B of the temperature difference condenser in the temperature difference condensation water production device and the top of the isobaric injector. The two nitrogen gas inlets controlled by the solenoid valve are connected in parallel. The liquid inlet at the lower hole of the gas-liquid exchanger is connected to the liquid nitrogen outlet controlled by the solenoid valve at the bottom of the isobaric injector through a pipeline. The gas-liquid exchanger is also provided with spiral heat exchange coils that pass through the upper and lower ends of the shell and are connected to the shell through holes. The nitrogen inlet at the top of the spiral heat exchanger coil in the gas-liquid exchanger passes through the pipeline. Cold energy power generation with gas-liquid exchanger side top The nitrogen outlet of the gas turbine installed and the two nitrogen inlets controlled by the solenoid valve on the top of the isobaric liquid injector of the cold power generation device are connected in parallel. The lower outlet of the spiral heat exchange coil in the gas-liquid exchanger is connected with the pipeline. The bottom of the gas-liquid exchanger side is connected to the liquid nitrogen inlet controlled by the solenoid valve on the top of the isobaric liquid injector of the cold power generation device;

The isobaric liquid injector is composed of two hollow cylindrical upper and lower domes made of low temperature resistant metal materials such as high manganese and low carbon steel. There are three through holes on the top of the ball, one through hole on the top of the two hollow cylindrical shells, one through hole on the bottom of the two shells, and one on the top of the two shells. The through hole of the shell is connected to an exhaust valve controlled by a solenoid valve. On the top of the two shell balls, there is a nitrogen outlet connected to the top of the gas-liquid exchanger and a temperature difference condensation water control device connected to the through hole of the shell and controlled by the solenoid valve. The two nitrogen inlets are connected in parallel. At the top of the two shell balls, a liquid nitrogen inlet connected to the liquid nitrogen outlet of the vortex tube refrigerator at the end of the low-temperature nitrogen heating device is also connected to the through holes of the casing. An outlet connected to the through hole of the casing and controlled by a solenoid valve and connected to the liquid nitrogen inlet at the bottom of the gas-liquid exchanger is connected to the spherical bottoms of the two casings. A liquid injection valve port connected to the through hole of the shell;

The cold energy power generation device comprises a constant-pressure differential liquid injection device whose shell is treated with ceramic heat-insulating paint and a low-temperature-resistant metal material, which is a cross-group A temperature difference condensate water production device in a temperature difference condensate water production device. It is composed of a gas turbine treated with a ceramic heat-insulating paint on the casing and a pipeline treated with a ceramic heat-insulation paint on the exterior; the isobaric liquid injector and the isobaric liquid injector described in the low-temperature pressure generating device. The structure is the same and will not be described in detail here. Each top of the isobaric liquid injector is provided with a nitrogen heat outlet on the top of the spiral heat exchange coil in the gas-liquid exchanger of the low-temperature pressure generating device and the nitrogen outlet of the gas turbine. It is connected to the inlet controlled by the solenoid valve, and a liquid nitrogen outlet connected to the lower port of the spiral heat exchange coil in the gas-liquid exchanger of the low-temperature pressure generating device is connected to the liquid nitrogen outlet controlled by the solenoid valve. Nitrogen inlet; one at the bottom of the isobaric injector The liquid nitrogen outlet controlled by the solenoid valve is connected to the liquid nitrogen inlet at the bottom of the group A temperature difference condensing water generator which is cross-combined in the temperature difference condensing water making device. The other port of the gas turbine is provided with a cross combination in the temperature difference condensing water making device. The nitrogen inlet connected to the nitrogen outlet of the group A temperature difference condensing water generator;

The temperature difference condensing water-making device, a hot air device treated by a heat-insulating material, a cross-combined group A and B temperature difference condensing water-treatment device treated by a heat-insulating material, a connecting air pipe treated by a heat-insulating material, Air-conditioning cold wind generators with hot material treatment, water storage tanks and pipes with ceramic heat-resistant paint on the outside and air-pipe pipes with heat-resistant material on the outside. The upper opening of the hot-air device treated by a heat-insulating material is provided from top to bottom in the housing: a fan, a steam heater and a steam inlet, an electric heater, a magnetic reversing device, and two sets of hot-air pipelines; The first lower port is connected to the upper port of the first temperature difference condensing water generator in group A, the second lower port in the shell is connected to the first temperature difference condensing water upper group in group B, and the third The lower port is connected to the upper port of the second temperature difference condensing water generator in group A, the lower port of the fourth in the casing is connected to the upper port of the second temperature difference condensing water generator in group B, and the steam inlet of the steam heater is connected to the steam The steam outlet on the fifth through hole on the top of the hot water storage tank is connected. The magnetic reversing device in the hot air device is an electromagnetic magnetic field composed of a steering baffle provided in the upper air pipe connected to the center, and a gravity metal plate provided with electromagnetic coils on both sides. 1 The two groups of temperature difference condensing water generators combined as described above, two temperature difference condensing water generators in group A are matched in a cold energy power generation device; the two temperature difference condensing water generators in group B are two in the air bucket. The heat exchange fin spiral heat exchange coils are connected at the upper end of the two heat exchange fin spiral heat exchange coils with two nitrogen inlets controlled by solenoid valves, and the lower end is connected with two nitrogen outlets controlled by solenoid valves; The above-mentioned connecting ducts treated by heat-insulating materials are provided with four inlets upwards, and the two inlets are connected to the bottom of two air buckets of the cold power generating device, and the other two are connected to two of the temperature difference condensing water generating device. The bottom of the air bucket is connected, and a cold air fan controlled by a solenoid valve is connected to the air duct pipe of the refrigerating compartment on the side thereof. At the bottom of the condensate water outlet, a pipe is also connected to the water inlet pipe top of the air conditioning cold wind generator; The air-conditioning cold wind generator treated by heat-insulating material uses multi-tube type for air-water exchange. The fan and air-conditioning air supply pipe are controlled by solenoid valves on the side. Two nozzles are set on the top of the air-water exchanger. Insert from top to bottom The water inlet of the bottom of the exchanger, a water outlet and a water storage tank inlet connected to the top; said water storage tank is provided on a water inlet, an outlet side disposed vessel;

The low-temperature nitrogen and heating device: a vortex tube refrigeration unit composed of three vortex tube refrigerators, and a steam generator group composed of three steam generators, and a steam hot water storage tank and a ceramic partition Composition of hot-painted pipes. The vortex tube cold unit is composed of three vortex tube refrigerators connected in series end to end. The steam generator with an automatic cold air discharge valve on the top treated by heat insulation material is a jacket made of metal material. A through-hole is provided on the hollow cylindrical upper and lower ball tops of the heat dissipation tubes behind the three vortex tube refrigerators, and the steam and hot water storage tanks treated by heat-insulating materials on the outside are made of metal materials and built-in Three sets of spirals Hollow upper and lower dome-shaped cylindrical barrels of heat exchange coils are provided with five through holes in the upper part of the steam hot water storage tank, and two through holes in the upper part of the steam hot water storage tank. One through hole is set in the middle of the tank, and four through holes are set in the bottom of the steam hot water storage tank. The nitrogen inlet of the first vortex tube chiller and the temperature difference

There are two nitrogen outlets connected in parallel at the bottom of the group B temperature difference condensing water generator. The nitrogen outlet of the first vortex tube refrigerator is connected to the nitrogen inlet of the second vortex tube refrigerator. The second vortex tube The nitrogen outlet of the refrigerator is connected to the nitrogen inlet of the third vortex tube refrigerator. The liquid nitrogen outlet of the third vortex tube refrigerator is connected to the liquid nitrogen inlet on the top of the isobaric liquid injector of the low-temperature pressure generator. Connected. Three through-holes on the top of the ball of the steam hot water storage tank and three spiral heat exchange coils in the steam and hot water storage tank are set on the ball top through holes of the steam generator on the three vortex control refrigerators. The steam inlet on the upper side is separately connected to the steam outlet; the three condensate water inlets at the lower hole of the dome of the three steam generators and the condensate water in the spiral heat exchange coil in the lower hole of the dome of the steam hot water storage tank The outlet and the water injection valve are connected in parallel. Two steam outlets controlled by the solenoid valve are provided at the other two through holes of the dome of the steam hot water storage tank, and a computer is installed at the other through hole of the dome of the steam hot water storage tank. The controlled water level controller is provided with a boiling water outlet controlled by a solenoid valve at the upper through hole in the steam hot water storage tank, and a hot water outlet controlled by a solenoid valve at the through hole in the middle of the steam hot water storage tank. At the other through hole at the bottom of the hot water storage tank, there is a tap water inlet controlled by a solenoid valve.

The invention mainly includes: a low-temperature pressure generating device, a cold energy power generation device, a temperature difference condensing water-making device, and a low-temperature nitrogen heating device; the temperature difference condensing water-making, heating, air-conditioning, and power generation system also includes low temperature Pressure generators, gas turbines, isobaric liquid injectors, A, B two groups of four temperature difference condensing water generators, air conditioning cold air generators, water storage tanks, fans, three vortex tube refrigerators, three A steam generator, a steam hot water storage tank, and a pipeline;

The low-temperature pressure generating device is preferably a gas-liquid exchanger treated with ceramic heat-insulating varnish and an isobaric liquid injector with a ceramic heat-insulating varnish and an outer surface preferably made of ceramic heat-insulating varnish. The solenoid valve controls the pipeline composition. The gas-liquid exchanger is preferably a hollow spherical shell made of a low temperature resistant metal material such as high manganese and low carbon steel. The upper and lower centers of the hollow spherical shell of the gas-liquid exchanger are each A through hole is provided, and the nitrogen outlet at the through hole on the hollow spherical shell of the gas-liquid exchanger is passed through a pipeline and the temperature difference condenser B in the temperature difference condensation water making device. The two nitrogen inlets controlled by the solenoid valve and the like The two nitrogen gas inlets controlled by the solenoid valve on the top of the pressure difference injector are connected in parallel. The liquid inlet at the lower hole of the gas-liquid exchanger is controlled by a solenoid valve through the pipeline and the bottom of the equal pressure injector. The connected liquid nitrogen outlets are also provided in the gas-liquid exchanger with spiral heat exchange coils that pass through the upper and lower ends of the casing and the two through holes of the casing, and the spiral heat exchanger discs in the gas-liquid exchanger. The nitrogen inlet at the top of the tube is connected to the gas-liquid exchanger through the pipeline Injection pressure head of the liquid and other gas turbine cooling nitrogen outlet power generating device and a cold top of the top two power generating device controlled by the nitrogen inlet and connected with the solenoid valve, The lower outlet of the spiral heat exchange coil in the gas-liquid exchanger is connected with the liquid nitrogen inlet controlled by the solenoid valve at the top of the isobaric injector of the cold-energy power generator through the bottom of the side of the gas-liquid exchanger;

The isobaric liquid injection device mentioned above is preferably composed of two hollow cylindrical shells with a dome top and bottom made of a low temperature resistant metal material such as high manganese and low carbon steel. There are three through holes on the top of the ball, one through hole in the middle and upper part of the two hollow shells, one through hole on the bottom of the two shells, and one on the two shells. An exhaust valve controlled by a solenoid valve is connected to the through hole of the shell, and a nitrogen outlet and a temperature difference condensation at the top of the gas-liquid exchanger controlled by a solenoid valve are connected to the top of the two shell balls. The nitrogen inlets of the water-making device are connected in parallel. At the top of the two shell balls, there is also a hole connected to the through hole of the shell and connected to the liquid nitrogen outlet of the vortex tube refrigerator at the end of the low-temperature nitrogen heating device. Liquid nitrogen inlet, an outlet connected to the through hole of the casing and controlled by a solenoid valve and connected to the liquid nitrogen inlet at the bottom of the gas-liquid exchanger is connected to the spherical bottom of the two shells, and the upper and middle parts of the two hollow barrel-shaped shells Each is provided with a liquid injection valve port connected to the through hole of the shell;

The cold energy power generation device is preferably a group A temperature difference that is cross-combined in a wet differential condensing water device made of a low-temperature-resistant metal material, an isobaric liquid injector with a shell made of ceramic insulation paint, and a shell made of ceramic insulation paint. The condensing water generator and the shell are made of a ceramic heat-treated paint-treated gas turbine and the pipeline is made of ceramic heat-treated paint, and the isobaric pressure difference injector and the isobaric pressure difference described in the low-temperature pressure generator The structure of the injector is the same and will not be described in detail here. On the top of the isobaric injector, an inlet connected to a solenoid valve controlled by an inlet of a spiral heat exchange coil in a gas-liquid exchanger of a low-temperature pressure generating device and a nitrogen outlet of a port of the gas turbine is provided. At the top of the pressure difference injector, there is a liquid nitrogen inlet connected to the lower end of the spiral heat exchange coil in the gas-liquid exchanger of the low-temperature pressure generating device. A liquid nitrogen outlet controlled by a solenoid valve is also provided at the bottom of the device, which is connected to the liquid nitrogen inlet at the bottom of the group A temperature difference condensing water generator which is cross-combined in the temperature difference condensing water device. The other port of the gas turbine is preferably provided with The nitrogen inlet connected to the nitrogen outlet of the group A temperature difference condensing water generator in the cross combination in the temperature difference condensing water device;

The temperature difference condensing water generating device is preferably a hot air device processed by a thermal insulation material, a cross combination of eight or B group temperature difference condensing water generators, a connecting air pipe processed by a thermal insulation material, an exterior The air-conditioning cold wind generator treated with heat-insulating material, the water storage tank and the pipe whose outer surface is treated with ceramic heat-insulating paint and the outer-pipe treated by heat-insulating material; the opening of the hot-air device is made of heat-insulating material. From the top of the processed shell, there are: fans, steam heaters and steam inlets, electric heaters, magnetic reversing devices, and two sets of hot air ducts: the first lower port of the shell and the first The upper port of a temperature difference condensing water generator is connected, the second lower port in the housing is connected to the first temperature difference condensing water generator in group B, and the third lower port in the housing is condensed with the second temperature difference in group A The upper mouth of the water purifier is connected, and the lower mouth of the fourth in the shell is different from the second temperature difference in group B. The upper port of the condensing water generator is connected, the steam inlet of the steam heater is connected to the steam outlet on the fifth through hole on the top of the steam hot water storage tank; the magnetic commutation device in the hot air device is preferably connected by the center. The steering baffle in the upwind pipe is provided with a gravity metal plate below, and an electromagnetic magnetic field composed of electromagnetic coils is arranged on each side; the two groups of temperature difference condensation water heaters formed by the cross combination, and the group of two temperature difference condensation water heaters in group A It is matched in the cold energy power generation device; the two temperature difference condensing water generators in group B are two heat exchange fin spiral heat exchange coils located in the air bucket, at the upper ends of the two heat exchange fin spiral heat exchange coils. Preferably, it is connected to two nitrogen inlets controlled by a solenoid valve, and the lower end is preferably connected to two nitrogen outlets controlled by a solenoid valve; preferably, the communication duct processed by the heat insulation material is provided with four inlets upward, It is better to connect the two inlets to the bottom of the two air buckets of the cold energy power generation device, and the other two to the bottom of the two air buckets of the temperature difference condensing water production device, and the cold air controlled by the solenoid valve on its side Machine and refrigerator air duct It is connected to the condensate water outlet at the bottom by a pipe connected to the water inlet on the top of the air-conditioning cold wind generator. The air-conditioning cold wind generator treated with heat-insulating material uses multi-tube type for gas-water exchange. The ventilator and air-conditioning air supply pipe controlled by the solenoid valve are provided with two nozzles on the top of the air-water exchanger, one is inserted from the bottom to the inlet of the inner part of the air-water exchanger, and the other is connected with the top of the water storage tank. A water outlet connected to a water inlet; the water storage tank is a container provided with a water inlet on the side and a water outlet on the side;

The low-temperature nitrogen and heating device: a vortex tube refrigeration unit preferably composed of three vortex tube refrigerators, and a steam generator group composed of three steam generators, and a steam and hot water storage tank and a ceramic surface It is composed of pipelines treated with heat-insulating paint; the vortex tube refrigeration unit is preferably composed of three vortex-tube refrigerators connected in series end to end; the exterior is treated with heat insulation material and the top is equipped with an automatic cold air discharge valve. The generator is made of metal material and is provided with a through hole at the hollow cylindrical upper and lower dome on the heat dissipation tube behind the three vortex tube refrigerators; the outer surface of the steam and hot water treated with thermal insulation material is preferred The tank is a cylindrical barrel made of metal material with three sets of spiral heat exchange coils. It has five through holes on the top of the steam hot water storage tank. There are two through holes in the upper part, one through hole in the middle of the steam hot water storage tank, and four through holes in the bottom of the steam hot water storage tank. The nitrogen inlet of the first vortex tube refrigerator is connected in parallel with two nitrogen outlets at the bottom of the group B temperature difference condensing water generator of the temperature difference condensing water device. The nitrogen outlet of the first vortex tube refrigerator is connected with The nitrogen inlet of the second vortex tube refrigerator is connected, the nitrogen outlet of the second vortex tube refrigerator is connected to the nitrogen inlet of the third vortex tube refrigerator, and the liquid nitrogen outlet of the third vortex tube refrigerator. It is connected in parallel with the liquid nitrogen inlet on the top of the isobaric liquid injector of the low-temperature pressure generating device. Three through holes on the top of the ball of the three steam generators installed on three vortex tube refrigerators are provided with three through holes on the top of the ball through the hot water tank and three spiral heat exchange plates in the hot water tank The steam inlet on the tube is connected to the steam outlet separately. At the through hole of the dome under the three steam generators, each has a condensate inlet and steam hot water. The condensed water outlets of the three spiral heat exchange coils and the water injection valve in the through hole of the ball top of the storage tank are connected in parallel, and two steam holes controlled by the solenoid valve are provided at the other two through holes of the ball top of the steam hot water storage tank. At the outlet, a water level controller controlled by a computer is set at another through hole in the dome of the steam hot water storage tank, and a boiling water outlet controlled by a solenoid valve is set at the upper through hole in the steam hot water storage tank. A hot water outlet controlled by a solenoid valve is set at a through hole in the middle of the storage tank, and a tap water inlet controlled by a solenoid valve is set at another through hole at the bottom of the steam hot water storage tank.

Compared with the prior art, the present invention has the following advantages: one-time start, condensed water without energy consumption during operation, and provides hot water, hot air, cold air, steam and electricity.

The embodiments of the present invention will now be described in detail with reference to the drawings, so as to have a clearer and more detailed understanding of the present invention.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a schematic diagram of the implementation of the temperature difference condensation water production, heating, air conditioning, and power generation system of the present invention.

detailed description

The temperature difference condensation water production, heating, air conditioning, and power generation system provided by the present invention is formed by interconnecting a low temperature pressure generating device, a cold energy power generation device, a temperature difference condensation water production device, and a low temperature nitrogen heating device.

The low-temperature pressure generating device is composed of a gas-liquid exchanger 16 and two equal-pressure-diffusion injectors 1, 10, and a pipeline controlled by a solenoid valve:

The gas-liquid exchanger 16 is provided with a through hole on the upper and lower sides of the hollow spherical shell. The upper through-hole is the nitrogen outlet 13 of the gas-liquid exchanger 16 and the lower through-hole is the liquid nitrogen inlet 18 of the gas-liquid exchanger 16. The gas-liquid exchanger 16 is also provided with a spiral heat exchanger coil 15 connected to the shell through hole at the upper and lower ends of the upper and lower ends respectively. The spiral heat exchanger coil 15 is provided with an upper inlet 14 and a lower outlet 17 ;

The two isobaric liquid injectors 1 and 10 described above are provided with three pipe holes connected to the housing in the upper and middle parts of the housing. One of the through holes is an exhaust port 5, 9 controlled by a solenoid valve. The other through hole is the nitrogen inlets 4 and 8 controlled by the solenoid, the third through hole is the liquid nitrogen inlets 3 and 6 controlled by the solenoid valve, and a liquid injection valve connected to the housing is provided in the upper part of the housing. Ports 2 and 7; a liquid outlet which is controlled by a solenoid valve and communicates with the casing is provided at the bottom of the casing, 11 and 12;

The cold energy power generation device comprises two equal pressure differential liquid injection devices 30 and 29 and a group A temperature difference condensing water generator 52, 59 and a gas turbine 28 and pipelines which are combined in a temperature difference condensing water device. Composition:

Wherein, the isobaric liquid injectors 30 and 29 are provided with three pipe holes in the upper and middle parts of the housing, which communicate with the housing. One of the through holes is an exhaust port 21, 25 controlled by a solenoid valve, and the other is a through hole. The nitrogen inlets 20 and 24 are controlled by solenoid valves. The third through hole is the liquid nitrogen inlets 19 and 22 controlled by solenoid valves. A liquid injection valve port 23, 26 connected to the housing; a liquid outlet port 31, 32 controlled by a solenoid valve and connected to the housing is provided at the bottom of the housing;

The cross-combined A temperature difference condensing water generators 52 and 59 also include two heat exchange fin spiral heat exchangers provided in the air barrels 51 and 60 of the group A temperature difference condensing water generators 52 and 59. Coil tubes 50, 58. A nitrogen outlet 49, 57 is provided at the top of each of the two heat exchange plate spiral heat exchange coils 50, 58, and a liquid nitrogen inlet 66, 68 is provided at the bottom.

The gas turbine 28 is a snail-type seal, heat preservation and pressure holding device with a nitrogen outlet 27 at one end and a nitrogen inlet 33 at the end, which can drive the generator to perform work;

The temperature difference condensing water-making device is composed of a hot air device 35 and a cross-combined group A and B temperature difference condensing water device, a connecting air pipe 72, an air-conditioning cold wind generator 76, a water storage tank 80, and a pipeline:

The hot air device 35 is provided with a shell 40 opened from top to bottom: a fan 34, a steam heater 37 and a steam inlet 36, an electric heater 38, a magnetic reversing device 41, and two sets of hot air pipelines. : 45, 46, 47, 48, of which the lower port of 45 is connected to the upper port of group A 52, the lower port of 46 is connected to the upper port of group B 53, the lower port of 47 is connected to the upper port of group A 59, 48 The lower port is connected to the upper port of group B 63, and the steam inlet 36 of the steam heater 37 is connected to the steam outlet 98 on the fifth through hole on the top of the steam hot water storage tank 115; wherein the magnetic reversing device in the hot air device 35 41 is a device connected to the central axis, provided with a wind direction baffle 39 on the upper side, a gravity metal plate 42 on the lower side, and electromagnetic magnetic fields 44, 42 on both sides with electromagnetic coils;

The two groups of cross-condensation condensate water generators mentioned above, A group 52, 59, are matched in the cold energy power generation device; Group B 53, 63, are composed of heat exchange plate spirals arranged in the air buckets 56, 64 Heat exchange coils 54, 62. The upper ends of the heat exchange fin spiral heat exchange coils 54, 62 are connected by nitrogen inlets 55, 61 controlled by solenoid valves, and the lower ends are nitrogen outlets 67, 69 controlled by solenoid valves.

The above-mentioned connecting air duct 64 is provided with four inlets upwards, two of which are intersected with the bottoms of the air buckets 51 and 60 of the cold energy power generating device, and the other two are connected with the two air buckets of the temperature difference condensing water making device. 56 and 6 are connected at the bottom, and on the side are also connected to the refrigerating chamber air duct tube 70 through a cooling fan 71 controlled by a solenoid valve. At the bottom of the condensate water outlet, a pipe is connected to the water inlet of the air conditioner cold air generator 76 at the top. 75 is connected; the air-conditioning cold wind generator 76 is a multi-pipe type for air-water exchange, with a fan 74 and an air-conditioning air supply pipe 73 on the side with solenoid valve control, and two pipes are set on the top of the air-water exchanger Mouth, one is from the bottom to the inlet 75 of the bottom of the gas-water exchanger, and one is the water outlet 77 connected to the water inlet 78 on the top of the water storage tank 80;

The water storage tank 80 is a container with a water inlet 78 on the side and a water outlet 79 on the side; the low-temperature nitrogen heating device: a vortex composed of three vortex tube refrigerators 87, 88, and 89 Tube Refrigeration unit, a steam generator set consisting of three steam generators 90, 91, 92, and a steam hot water storage tank 115 and pipes; ■

The vortex tube refrigerator unit is composed of three vortex tube refrigerators 87, 88, and 89 connected in series. The nitrogen inlet 81 of the first vortex tube refrigerator 87 and the temperature difference condensing water generator Two nitrogen outlets 67 and 69 are connected in parallel at the bottom. The nitrogen outlet 82 of the first vortex tube refrigerator 87 is connected to the nitrogen inlet 83 of the second vortex tube refrigerator 88, and the second vortex tube type The nitrogen outlet 84 of the refrigerator 88 is connected to the nitrogen inlet 85 of the third vortex tube refrigerator 89, and the liquid nitrogen outlet 86 of the third vortex tube refrigerator 89 is connected to the isobaric injector 1 of the pressure generating device 1 The liquid nitrogen inlets 3 and 6 at the top of 10 are connected in parallel;

The steam generators 90, 91, and 92 with automatic cold air discharge valves 99, 108, and 114 are hollow columns that are mounted on the radiating tubes 102, 110, and 113 behind three vortex tube refrigerators 87, 88, and 89. Type barrels, one through hole is provided at the top and bottom of the barrel, the upper through holes are steam outlets 93, 104, 112, and the lower through holes are condensed water inlets 103, 111, 116;

The steam hot water storage tank 115 is a hollow cylindrical barrel with three sets of spiral heat exchange coils 105, 106, and 107. The steam hot water storage tank 115 is provided with five through holes on the top of the ball. Among them, three through holes are steam inlets 94, 95, 97 of three spiral heat exchange coils 105, 106, 107, and the fourth and fifth through holes are steam outlets 96 and 98 controlled by solenoid valves; There are two through holes in the middle and upper part of the storage tank, one is a water level controller 100 controlled by a computer, and the other is a boiling water outlet 101 controlled by a solenoid valve. The hole is a hot water outlet 109 controlled by a solenoid valve. There are four through holes at the bottom of the lower part of the steam hot water storage tank 115, three of which are condensate water outlets 117, 118, and 119, and the other through hole is controlled by a solenoid valve. Tap water inlet 120.

The top steam outlets 93, 104, and 112 on the three steam generators 90, 91, and 92 are the steam inlets on the three sets of spiral heat exchange coils 105, 106, and 107 in the steam and hot water storage tank 115 The condensate inlets 103, 111, 116 of the lower part of the three steam generators 90, 91, 92 and the three sets of spiral heat exchange coils 105, 106, 107 in the steam hot water storage tank 115 are connected. Water outlets 117, 118, 119 are connected at the bottom and then connected to water injection valves 121, 122, 123.

The nitrogen outlet 13 of the gas-liquid exchanger 16 in the low-temperature pressure generating device passes through the pipeline and the temperature difference condensing water production device. The nitrogen inlets 55 and 61 of the temperature difference condensing water production device 53, 63 and the isobaric liquid injection device. 1, 10 pressure nitrogen inlets 4, 8 are connected;

Gas-liquid exchanger of the pressure generating device 16 Liquid nitrogen inlet 18 Through the pipeline and the isobaric liquid injector

The outlets 11, 12 controlled by solenoid valves at the bottom of 1, 10 are connected; The upper inlet 14 of the spiral heat exchange coil 15 in the gas-liquid exchanger 16 of the pressure generating device, the nitrogen outlet 27 of the gas turbine 28, and the isobaric liquid injector 30 with the cold energy generating device, The nitrogen inlets 20 and 24 at the top of 29 are connected;

The lower outlet 17 of the spiral heat exchange coil 15 in the gas-liquid exchanger 16 of the pressure generating device is connected to the nitrogen inlets 19 and 22 at the top of the isobaric liquid injectors 30 and 29 of the cold energy generating device;

The temperature difference condensing water generator A group 52 of the cold-energy power generation device isobaric liquid injectors 30, 29 at the bottom of which are controlled by solenoid valves, and then cross-combined with the cold-energy power generation device. The two liquid nitrogen inlets 66 and 68 controlled by solenoid valves at the bottom of 59 are connected in parallel;

The nitrogen inlet 33 of the gas turbine 28 of the cold power generation device is parallel to the nitrogen outlets 49 and 57 at the top of the two heat exchange fin spiral heat exchange coils 50 and 58 in the group 52 and 59 of the temperature difference condensing water generator A. Even

In the temperature difference condensing water production device, the fin-type heat exchange exhaust pipes 54, 62 in the temperature difference condensing water production device B group 53, 63, the nitrogen outlets 67, 69 at the lower end controlled by a solenoid valve, and the low temperature nitrogen heating heating device. The nitrogen inlets 81 of the first vortex tube refrigerator 87 are connected in parallel;

All solenoid valves and fans of the entire system are switched on and off automatically by the computer system 124. The water level in the steam hot water storage tank of the low-temperature nitrogen heating device is automatically controlled by the water level controller 100 on the side of the steam hot water storage tank. The electromagnetic fields 44 and 42 of the electromagnetic coil in the magnetic reversing device 41 in the hot air device 35 are controlled by a computer to alternately turn on and off the power.

The gas-liquid exchanger 16, low-pressure injectors 1, 10 of the low-temperature pressure generating device in the system; the gas turbine 28, the constant-pressure injectors 30, 29, and the hot-air device 35 of the cold power generator Housing 40 and the connecting air pipe 72 of the temperature difference condensing water making device, the air conditioning cold air generator 76; the three steam generators 90, 91, 92 of the low temperature nitrogen heating device, and the steam hot water storage tank 115; also including all All casings of the gas pipes, infusion pipes and fans 71, 74 and the air pipes 70, 73 must be insulated with heat-insulating materials.

The temperature difference condensing water-making, heating, air-conditioning and power generation system of the present invention works as follows: Firstly, the isostatic pressure difference injector 1, 30, the upper injection valve 2, 23, are opened by hand and filled with liquid. The nitrogen is closed again, and at the same time, the water injection valves 121, 122, 123 on the condensate water outlets 117, 118, and 119 at the bottom of the steam hot water storage tank 115 are opened by hand, and the drains provided in the middle of the steam generators 90, 91, 92 Air valves 99, 108, 114 Fill a certain amount of water into the steam generators 90, 91, 92 until the water flows out from the exhaust valves 99, 108, 114, and then close the condensate at the bottom of the steam hot water storage tank 115 by hand The water injection valves 121, 122, and 123 on the outlets 117, 118, and 119 and the exhaust valves 99, 108, and 114 in the middle of the steam generators 90, 91, and 92 have been prepared before starting.

Start the computer control system, and make the outlets at the bottom of the isobaric liquid injectors 1, 30 controlled by a solenoid valve 11, 31 and nitrogen inlets 4, 20 controlled by solenoid valves and isobaric injectors 10, 29 At the top of solenoid valve controlled exhaust valves 9, 25 and isobaric injectors 10, 29 Liquid nitrogen inlets 6, 22 controlled by solenoid valves, magnetic reversing devices in hot air installations, fans, electric heaters, fans at one end of the connecting pipe, and fans of air-conditioning cold air generators. Automatically open the upper side of the steam hot water storage tank 115 The steam hot water storage tank 115 controlled by the water level controller 100 is controlled by a solenoid valve controlled by a solenoid valve at the top and a tap water inlet valve controlled by a solenoid valve at the bottom. The valve is opened at the same time, so that liquid nitrogen enters the gas-liquid exchange through the pipeline at the same time. In the liquid nitrogen inlet below the Group A temperature difference condensate water generator of the temperature difference 16 and temperature difference condensate water production device, the magnetic commutation device in the hot air device also changes the direction of the hot air of the fan at a gap of 10 seconds at the same time, thereby ensuring the normal system. Exchange temperature differences.

When the whole system works initially, liquid nitrogen flows from the outlet 11 controlled by the solenoid valve at the bottom of the isobaric liquid injector 1 into the temperature difference condensing water generating unit of the temperature difference condensing water generating device. The nitrogen inlet at the lower end of the heat exchange coil is controlled by a solenoid valve, and heat is absorbed and vaporized in the heat exchange fin spiral heat exchange coil Shun to be normal temperature and high pressure nitrogen. The nitrogen gas outlet and pipeline controlled by the solenoid valve pass the gas turbine to drive the generator to perform work, and enter the equal pressure differential injector 30. The nitrogen inlet controlled by the solenoid valve sends pressure to the equal pressure differential injector and enters low temperature pressure. The temperature difference between the liquid nitrogen in the spiral heat exchanger coil inside the generator 16 and the low-temperature pressure generator is exchanged from top to bottom. The top of the liquid tank 29 is opened by a nitrogen valve controlled by a solenoid valve and injected into the liquid tank 29 of equal pressure difference to complete a half cycle;

At the same time, the liquid nitrogen in the low-temperature pressure generator 16 absorbs heat and gasifies, and the high-pressure nitrogen whose temperature is controlled at minus 60 ° C first enters the nitrogen inlet at the top of the isobaric liquid injector 1 through the outlet at the top. The pressure difference liquid injector 1 sends the pressure, and then enters the nitrogen inlet controlled by the solenoid valve at the upper end of the heat exchange fin spiral heat exchange coil of the group B temperature difference condensing water generator of the temperature difference condensing water device through the pipeline. The heat exchange fin spiral heat exchange coil Shunjian endothermic gasification temperature is controlled at minus 20 ° C high pressure nitrogen, and it has recently passed the third vortex tube refrigerator (each time 60 ° C) for three times of temperature reduction and pressure reduction. Then it becomes liquid nitrogen, and the liquid nitrogen inlet at the top of the isobaric liquid injector 10 is moved back by the pressure and enters the isobaric liquid injector 10, thereby completing the half cycle;

When the liquid nitrogen and low-temperature nitrogen pass through the temperature difference condensing water generators of the group A and B of the temperature difference condensing water device, the resulting low temperature causes the air around the device to be adsorbed on the heat exchange sheet spiral heat exchange coils to form Frost, the heat flow generated by the electric heater is blown to the heat-exchanger fin spiral heat exchange coil by the fan which is introduced on time in the timing reversing device, so that the frost formed on the spiral heat exchange coil melts into low-temperature water. When it flows into the connecting duct, a part of the low temperature is pressured and attracted by the fan on the side of the connecting duct to the freezer through the pipeline, and the low-temperature water flows into the air-conditioning cold air generator through the bottom, and the multi-pipe air in the air-conditioning cold air generator Forced again in the water exchanger After the heat exchange, the temperature rises to normal temperature water, and the water in the air-conditioning cold air generator overflows and flows into the water storage tank;

After the Group B temperature difference condensing water generator of the high-pressure nitrogen temperature difference condensing water generating device of minus 60Ό passed, the endothermic gas temperature was controlled at a high pressure nitrogen of minus 20 ° C. Recently, the third vortex tube refrigerator (each passing one After cooling down to 60 ° C for three times, the temperature and pressure became liquid nitrogen. At the same time, three vortex tubes in the rear of three vortex tube refrigerators with automatic cold air discharge valves and three heat generators in the three steam generators absorb heat simultaneously. The steam enters the top of the steam hot water tank through the pipeline and then enters the three sets of spiral heat exchange coils in the steam hot water tank. Heat is exchanged from top to bottom in the steam hot water tank, and the heat is condensed into water, which is again caused by the water level. The three heat-radiating pipes in the three steam generators are cyclically evaporated and exchanged again. At this time, the low-temperature water in the steam hot water tank is heated and vaporized due to heat absorption, resulting in a high temperature of 13CTC. The outlet connected to the steam inlet of the steam heater in the hot air device is automatically opened to supply heat to the steam heater. At the same time, the electric heater in the hot air device is automatically turned off. At this time, the steam hot water tank Automatic water or steam for hot water out;

After the liquid nitrogen in the isobaric injectors 1 and 30 runs out, the computer will automatically close the isobaric injectors 1, 30 at the bottom, which are controlled by solenoid valves. Nitrogen inlets 4, 20 and constant pressure differential injectors 10, 29 top of solenoid valve controlled by solenoid valve 9, 25 and constant pressure differential injectors 10, 29 top of liquid nitrogen controlled by solenoid valve Inlet 6, 22, and open the constant pressure differential injectors 10, 29 at the same time. Outlet ports 12, 32 controlled by solenoid valves at the bottom and nitrogen inlets 8, 24 and equal pressure differential injectors controlled by solenoid valves at the top. 1. The exhaust valve 5, 21 at the top of the solenoid valve controlled by the solenoid valve 5, 21 and the isobaric injector 1, the liquid nitrogen inlet 3, 19 at the top by the solenoid valve controlled by the solenoid valve, 1. The exhaust valves 5 and 21 controlled by solenoid valves at the top of 30 enable nitrogen and liquid nitrogen to perform self-controlling cycles without energy consumption.

The working principle of the present invention is as follows: The present invention artificially manufactures a "low-temperature heat source" liquid nitrogen using "the phenomenon that heat is difficult to conduct downwardly" with an ambient temperature of "high-temperature heat source", and uses the temperature difference between nitrogen and liquid nitrogen. In accordance with the "closed loop" method, a non-energy-consumption self-controlled cycle is performed to perform work.

Industrial applicability

The temperature difference condensation water production, heating, air conditioning, and power generation systems provided by the present invention are designed using the "closed circuit" theory, and there is no energy consumption during operation. Only cold energy needs to be started at one time, and natural heat sources in the air can be used. Condensing air to produce water while providing hot air, cold wind, steam and electricity, so that dry and lack of water or cold, hot or lack of electricity in deserts and plateaus, get clean and cheap cold, hot water and cold, hot air and sufficient power . The invention has broad industrial application prospects.

Claims

Rights request

1. Temperature difference condensate water production, heating, air conditioning, and power generation systems, which are characterized by interconnecting low temperature pressure generating devices, cold energy power generation devices, temperature difference condensing water production devices, and low temperature nitrogen heating devices, of which- The low-temperature pressure generating device is composed of a gas-liquid exchanger (16), two isobaric liquid injectors (1), (10), and a pipeline controlled by a solenoid valve:

The gas-liquid exchanger (16) is provided with a through hole on the upper and lower sides of the hollow spherical shell. The upper through-hole is a nitrogen outlet (13) of the gas-liquid exchanger (16), and the lower through-hole is a gas-liquid exchanger ( The liquid nitrogen inlet (18) of 16) and the gas-liquid exchanger (16) are also provided with spiral heat exchange coils (15) that pass through the upper and lower ends of the casing and are connected to the casing through holes, respectively. The hot coil (15) is provided with an upper inlet (14) and a lower outlet (17); the two isobaric liquid injectors (1), (10) are provided with three and One of the through-holes of the tube communicating with the housing is the exhaust ports (5) and (9) controlled by the solenoid valve, and the other through-holes are the nitrogen inlets (4) and (8) controlled by the solenoid valve. The through holes are liquid nitrogen inlets (3) and (6) controlled by a solenoid valve, and a liquid injection valve port (2) and (7) are provided in the upper part of the housing and communicate with the housing; A liquid outlet (11), (12) connected to the casing controlled by a solenoid valve;

The cold energy power generation device comprises two equal pressure differential liquid injectors (30), (29) and a group A temperature difference condensing water generator (52), (59) which is cross-combined in a temperature difference condensing water device. And a gas turbine (28) and pipelines:

The equal-pressure-difference liquid injectors (30) and (29) are provided with three pipe holes in the upper and middle parts of the casing, which communicate with the casing, and one of the through holes is an exhaust port (21) controlled by a solenoid valve. (25), the other through hole is the nitrogen inlet (20), (24) controlled by the solenoid valve, and the third through hole is the liquid nitrogen inlet (19), (22) controlled by the solenoid valve, in the housing The upper part is provided with a liquid injection valve port (23), (26) which communicates with the shell; the lower part of the shell is provided with a liquid outlet port, which is controlled by a solenoid valve, which communicates with the shell, (31), (32) );

The cross-combined group A temperature difference condensing water generators (52) and (59) also include:

The two heat exchange fin spiral heat exchange coils (50) and (58) in the air buckets (51) and (60) of the group A temperature difference condensing water generator (52) and (59), Hot fin spiral heat exchange coils (50), (58) are provided with a nitrogen outlet (49), (57) at the top, and a liquid nitrogen inlet (66) (68) at the bottom;

The gas turbine (28) is a snail-type sealed, heat-preserved, pressure-maintained device with a nitrogen outlet (27) and a nitrogen inlet (33) at one end, which can drive the generator to perform work;

The temperature difference condensing water-making device is condensed by a hot air device (35) and a cross-combined group A and B temperature difference The water generator is composed of a connecting air pipe (72), an air-conditioning cold wind generator (76), a water storage tank (80) and a pipeline: wherein the open shell (40) of the hot air device (35) is from top to bottom It is provided with: a fan (34), a steam heater (37) and a steam inlet (36), an electric heater (38), a magnetic reversing device (41), and two sets of hot air pipelines: (45), ( 46), (47), (48), where the lower port of (45) is connected to the upper port of group A (52), the lower port of (46) is connected to the upper port of group B (53), and (47) The lower port is connected to the upper port of group A (59), the lower port of (48) is connected to the upper port of group B (63), the steam inlet (36) of the steam heater (37) and the steam hot water storage tank (115 ) The steam outlet (98) on the fifth through hole at the top is connected;

The magnetic reversing device (41) in the hot air device (35) is an electromagnetic field (44), (42) with a wind direction baffle plate (39) and a gravity metal plate (42) on both sides, and electromagnetic coils on both sides. ;

The two groups of cross-condensation condensate water generators mentioned above, group A (52), (59), are matched in the cold energy power generation device; group B (53), (63), which are set in the air bucket (56 ), (64), the heat exchange fin spiral heat exchange coils (54), (62), and the upper end of the heat exchange fin spiral heat exchange coils (54), (62) is controlled by a nitrogen valve. The inlets (55) and (61) are connected, and the lower end is a nitrogen gas outlet (67), (69) controlled by a solenoid valve; the communication duct (64) is provided with four inlets upwards, two of which cross The inlet is connected to the bottom of the air buckets (51) and (60) of the cold power generation device, and the other two are connected to the bottom of the two air buckets (56) and (64) of the temperature difference condensing water production device. The controlled cooler (71) is connected to the refrigerating chamber air duct tube (70), and at the bottom of the condensate water outlet, it is also connected to the water inlet (75) at the top of the air conditioner cold air generator (76) by a pipe;

The air conditioner cold air generator (76) is a multi-pipe type for air-water exchange. The fan (74) and air-conditioning air supply pipe (73) with solenoid valve control on the side are provided on the top of the air-water exchanger. Two nozzles, one is the inlet (75) inserted from the top to the bottom of the gas-water exchanger, and the other is the water outlet (77) connected to the water inlet (78) at the top of the water storage tank (80);

The water storage tank (80) is a container provided with a water inlet (78) and a water outlet (79) on the side; the low-temperature nitrogen heating device: three vortex tube refrigerators (87) , (88), (89) a vortex tube refrigeration unit, a steam generator group consisting of three steam generators (90), (91), (92), and a steam hot water storage tank (115) And pipeline composition;

The vortex tube refrigerator is composed of three vortex tube refrigerators (87), (88), and (89) connected in series. The nitrogen inlet (81) of the first vortex tube refrigerator (87) ) There are two nitrogen outlets (67) and (69) connected to the bottom of the temperature difference condensing water generator, the nitrogen outlet (82) of the first vortex tube refrigerator (87) and the second vortex tube refrigerator The nitrogen inlet (83) of the machine (88) is connected, the nitrogen outlet (84) of the second vortex tube refrigerator (88) and the nitrogen inlet of the third vortex tube refrigerator (89) (85) connected, the liquid nitrogen outlet (86) of the third vortex tube refrigerator (89) and the isobaric liquid injector (1) of the pressure generating device, (10) the liquid nitrogen inlet (3) at the top, (6) connected together;

The steam generators (90), (91), (92) with automatic cold air discharge valves (99), (108), (114) are three sets of vortex tube refrigerators (87), (88), ( 89) Hollow cylindrical barrels on the rear radiator pipes (102), (110), (113), one through hole is set at the top and bottom of the barrel, and the upper through holes are steam outlets (93), (104) ), (112), and the lower through holes are condensed water inlets (103), (111), (116);

The steam and hot water storage tank (115) is a hollow cylindrical top-and-bottom cylindrical barrel with three sets of spiral heat exchange coils (105), (106), and (107), and the steam and hot water storage tank ( 115) There are five through holes on the top of the upper ball, three of which are the steam inlets (94), (95), (97) of the three spiral heat exchange coils (105), (106), (107), The fourth and fifth through holes are the steam outlets (96) and (98) controlled by a solenoid valve; two through holes are set in the upper part of the steam hot water storage tank, one of which is a water level controller (100) controlled by a computer, The other is a boiling water outlet (101) controlled by a solenoid valve; a through hole is provided in the middle and lower part of the dome side of the steam hot water storage tank (115) as a hot water outlet (109) controlled by a solenoid valve, and the steam hot water storage The bottom of the tank (115) is provided with four through holes, three of which are condensate water outlets (117), (118), (119), and the other through hole is a tap water inlet (120) controlled by a solenoid valve.

Three of the steam generators (90), (91), (92) have steam outlets (93), (104), and (112) on the top. The steam inlets (94), (95), (97) in the upper part of the heat exchange coils (105), (106), (107) are connected; the three steam generators (90), (91), (92) in the lower part Condensate inlets (103), (111), (116) and condensate outlets (117) of three sets of spiral heat exchange coils (105), (106), (107) in the steam hot water storage tank (115) , (118), (119) are connected at the bottom and then connected to the water injection valves (121), (122), (123).

2. The temperature difference condensation water production, heating, air conditioning, and power generation system according to claim 1, characterized in that the nitrogen outlet (13) of the gas-liquid exchanger (16) of the low-temperature pressure generating device is connected to the temperature difference through a pipeline. Nitrogen inlets (55), (61) of temperature difference condensing water generators (53), (63) of group B condensing water device, and pressure nitrogen inlets (4) of isobaric liquid injectors (1), (10) , (8) connected;

The gas-liquid exchanger (16) and the liquid nitrogen inlet (18) of the pressure generating device are connected to the liquid injector (1), (10) of the equal pressure difference through the pipeline, and the liquid outlet (11) at the bottom is controlled by a solenoid valve, (12) connected;

The upper inlet (14) of the spiral heat exchange coil (15) in the gas-liquid exchanger (16) of the pressure generating device and the nitrogen outlet (27) of the gas turbine (28) and the cold energy power generation The nitrogen pressure inlets (20) and (24) at the top of the isobaric liquid injectors (30) and (29) of the device are connected;

Lower outlet (17) of inner spiral heat exchange coil (15) of gas-liquid exchanger (16) of said pressure generating device It is connected with the nitrogen pressure inlets (19) and (22) at the top of the equal pressure difference liquid injectors (30), (29) of the cold energy power generation device;

The isobaric liquid injectors (30) and (29) of the cold energy power generation device are connected in parallel with the liquid outlets (31) and (32) controlled by a solenoid valve, and then cross-combined with the cold energy power generation device. (Temperature difference) The two liquid nitrogen inlets (66) and (68) at the bottom of group A (52) and (59) of the water purifier controlled by a solenoid valve are connected in parallel;

The nitrogen inlet (33) of the gas turbine (28) of the cold power generation device and the two heat exchange fin spiral heat exchange coils (50) in the group A (52), (59) of the temperature difference condensing water generator, (58) The nitrogen gas outlets (49) and (57) at the top are connected in parallel;

In the temperature difference condensing water production device, the fin-type heat exchange exhaust pipes (54), (62) of the group B (53), (63) of the temperature difference condensing water generator, and the nitrogen outlets (67), ( 69) connected in parallel with the nitrogen inlet (81) of the first vortex tube refrigerator (87) of the low-temperature nitrogen heating device;

3. The temperature difference condensate water production, water supply, air conditioning, and power generation system according to claim 1 or 2, characterized in that all solenoid valves and fans of the entire system are automatically switched on and off by a computer system (124), wherein The water level in the steam hot water storage tank of the low temperature nitrogen heating device is automatically controlled by the water level controller (100) on the upper side of the steam hot water storage tank; the magnetic commutation device (41) in the hot air device (35) The electromagnetic fields (44) and (42) of the coil are controlled by the computer to alternately turn on and off the power.

4. The temperature difference condensing water production, heating, air conditioning, and power generation system according to claim 1 or 2, characterized in that the gas-liquid exchanger (16) of the low-temperature pressure generating device in the system, the isostatic pressure difference Liquid injectors (1), (10); gas turbines (28) for cold-energy generators, constant-pressure injectors (30), (29), housings (40) for hot-air devices (35), and temperature differences Connected air pipes (72) of condensate water production equipment, cold air generator (76) of air conditioner; three steam generators (90), (91), (92) of low temperature nitrogen heating equipment, steam hot water storage tank ( 115); Also includes all air ducts, infusion tubes and all casings of the wind (71), (74) and air ducts (70), (73) must be insulated with thermal insulation.