Plateau oxygen generation device and use method thereof

Abstract

The invention discloses a plateau oxygen generation device and a use method thereof. The plateau oxygen generation device comprises a base, an indoor oxygen generator and an oxygen generation kettle, a functional groove I and a functional groove II are formed in the base; the indoor oxygen generator comprises a water storage chamber I, an oxygen generation chamber I, a control chamber I, an oxygen collection chamber and an oxygen storage chamber; an electrolysis box and a catalysis box are arranged in the oxygen generation chamber I; a water inlet pipeline I is connected between the water storage chamber I and the electrolysis tank; the catalysis box is connected with the electrolysis box; an anode electrolysis part I and a cathode electrolysis part I are arranged in the electrolysis tank; a control part I is arranged in the control chamber; a gas washing device and an oxygen compression device are arranged in the oxygen collecting chamber; the anode electrolysis part I is connected with the gas washing device; the cathode electrolysis part I is led out of the room; an oxygen storage steel cylinder is arranged in the oxygen chamber; the oxygen compression device is connected with the oxygen storage steel cylinder; the principle of the oxygen generation kettle is the same as that of an indoor oxygen generator. Oxygen can be continuously released indoors and in a vehicle, the oxygen content of the surrounding environment is increased, meanwhile, oxygen is conveniently generated outdoors and inhaled at any time, a plurality of oxygen bottles do not need to be carried, and time and labor are saved.

Description

Technical Field

[0001] The invention belongs to the technical field of oxygen production equipment, and in particular relates to a plateau oxygen production device and a use method thereof. Background Art

[0002] Oxygen is a substance that people rely on for survival. Humans breathe in the air and breathe the oxygen in the air to maintain the normal body. Plateau areas are at high altitudes and the oxygen content in the air is thin. People get less oxygen from the air than in plains, and are prone to altitude sickness, which manifests as dizziness, vomiting, and weakness. At this time, it is necessary to increase the oxygen content inhaled into the human body, so oxygen inhalation has become an effective way to resist altitude sickness. People who have just arrived in plateau areas are more likely to have altitude sickness, so they need to replenish oxygen indoors, in cars, and outdoors. Portable oxygen cylinders are generally used on the plateau to replenish oxygen to the human body, but this type of oxygen cylinder must be carried with you at all times even indoors, which is more troublesome; it is also inconvenient to use oxygen cylinders to breathe oxygen when driving; workers who go out to work or do physical activities outdoors consume more oxygen, and the capacity of portable oxygen cylinders is limited, and carrying multiple oxygen cylinders consumes a lot of space and manpower. Summary of the invention

[0003] The purpose of the present invention is to propose a plateau oxygen generator and its use method to solve the problems of plateau hypoxia, lack of continuous oxygen supply equipment indoors or in cars, and the inconvenience of oxygen supplementation for the human body in the prior art. The patent of the present invention can continuously release oxygen indoors and in cars to increase the oxygen content of the human body's surrounding environment. At the same time, it is also convenient to generate oxygen outdoors and breathe oxygen at any time without carrying multiple oxygen cylinders, saving time and effort.

[0004] In order to achieve the above object, the present invention adopts the following technical solutions:

[0005] A plateau oxygen-generating device comprises a base, an indoor oxygen generator and an oxygen-generating kettle; the base is provided with a functional slot I matching the indoor oxygen generator and a functional slot II matching the oxygen-generating kettle; the indoor oxygen generator comprises a water storage chamber I, an oxygen-generating chamber I, a control chamber I, an oxygen-collecting chamber I and an oxygen storage chamber; an electrolytic box and a catalytic box are arranged in the oxygen-generating chamber; a water inlet pipe I is connected between the water storage chamber and the electrolytic box; the catalytic box is connected to the electrolytic box through a pipe; an anode electrolysis part I and a cathode electrolysis part I are arranged in the electrolytic box; a control part I is arranged in the control chamber; the anode electrolysis part I and the cathode electrolysis part I are both electrically connected to the output end of the control part I; a gas washing device and an oxygen compression device connected in sequence are arranged in the oxygen-collecting chamber; the anode electrolysis part I is connected to the gas washing device through a pipe; the cathode electrolysis Part I is passed to the outside through a pipeline; an oxygen storage cylinder is arranged in the oxygen chamber; the oxygen compression device is connected to the oxygen storage cylinder; the oxygen storage cylinder is provided with an oxygen outlet; the oxygen-making kettle comprises a water storage chamber II, a control chamber II and an oxygen-making chamber II; a water inlet pipe II is connected between the water storage chamber II and the oxygen-making chamber II; a control unit II is arranged in the control chamber II; an anode electrolysis unit II and a cathode electrolysis unit II are arranged in the oxygen-making chamber II; the bottoms of the anode electrolysis unit II and the cathode electrolysis unit II are electrically connected to the output end of the control unit II; the upper end of the anode electrolysis unit II is connected with an oxygen exhaust pipe which passes out of the oxygen-making kettle; the oxygen exhaust pipe is movably and detachably connected with an oxygen bag; the oxygen bag is provided with a detachable oxygen inhalation tube; a drinking port is arranged on the top of the oxygen-making kettle; the control unit I and the control unit II are both provided with an energy supply module and a control module.

[0006] The base can be placed indoors or in a car for use; the functional slots I and II are used to place an indoor oxygen concentrator and an oxygen-making kettle; power plugs are provided in the functional slots I and II, and the indoor oxygen concentrator and the oxygen-making kettle are both provided with rechargeable batteries and jacks matching the power plugs. After the indoor oxygen concentrator and the oxygen-making kettle are placed in the functional slots I and II respectively, they can be charged and can also be plugged in for use; the water storage chamber I is used to store clean water for electrolysis of water; the anode electrolysis part I in the electrolysis box is connected to the positive pole of direct current, and is used to generate oxygen after electrolysis of water; the cathode electrolysis part I is connected to the negative pole of direct current, and is used to generate hydrogen after electrolysis of water, and the hydrogen is discharged to a ventilated place outdoors, and this exhaust position needs to avoid people; the electrolyte is placed in the catalytic box to improve the efficiency of electrolysis of water; the gas washing device is used to remove the generated oxygen The gas is filtered to remove some impurity gases; the oxygen compression device can compress and cool the generated oxygen to form liquid oxygen and store it in an oxygen storage cylinder; the oxygen outlet of the oxygen storage cylinder is used to allow oxygen to overflow and increase the oxygen content in the room or car; the functional module of the control part I is provided with a current control device, which can convert alternating current into direct current for use by the anode electrolysis part I and the cathode electrolysis part I; the control module of the control part I is also provided with a control system for controlling the operation of the entire device; the oxygen production working principle of the oxygen-making kettle is similar to that of the indoor oxygen generator, both of which generate oxygen by electrolyzing water and discharge hydrogen; since the oxygen production capacity of the oxygen-making kettle is small, there is no need to add electrolytes to accelerate the electrolysis of water, nor is there any need to wash and store oxygen. If storage is required, it can be stored in oxygen bags; the water in the water storage chamber II of the oxygen-making kettle is drinkable.

[0007] As a further technical improvement, the anode electrolysis part I and the anode electrolysis part II respectively include an oxygen collecting cover I, an oxygen-generating electrode I and an oxygen collecting cover II, and an oxygen-generating electrode II; the oxygen collecting cover I and the oxygen collecting cover II are respectively covered on the oxygen-generating electrode I and the oxygen-generating electrode II; the top of the oxygen collecting cover I is connected to an oxygen exhaust gas washing pipe that is passed into the gas washing device; the top of the oxygen collecting cover II is connected to an oxygen exhaust pipe; the oxygen-generating electrode I and the oxygen-generating electrode II are respectively connected to the positive output end of the power supply module of the control part I and the control part II; the oxygen collecting cover I is provided with an emergency oxygen-generating start cover; the oxygen exhaust gas washing pipe is connected to an emergency oxygen outlet pipe. The oxygen collecting cover I is used to collect the oxygen generated by the anode electrolysis part I and pass it into the gas washing device; the oxygen collecting cover II is used to collect the oxygen generated by the oxygen-generating electrode II and pass it into the oxygen exhaust pipe.

[0008] As a further technical improvement, the cathode electrolysis part I and the cathode electrolysis part II respectively include a hydrogen collecting cover I, a hydrogen production electrode I and a hydrogen collecting cover II, and a hydrogen production electrode II; the hydrogen collecting cover I and the hydrogen collecting cover II are respectively covered on the hydrogen production electrode I and the hydrogen production electrode II; the tops of the hydrogen collecting cover I and the hydrogen collecting cover II are respectively connected with a hydrogen discharge pipe I and a hydrogen discharge pipe II leading to the outside; the hydrogen electrode I and the hydrogen production electrode II are respectively connected to the negative output end of the power supply module of the control part I and the control part II. The hydrogen collecting cover I is used to collect the hydrogen generated by the hydrogen production electrode I and pass it to the outside through the hydrogen discharge pipe I; the hydrogen collecting cover II is used to collect the hydrogen generated by the hydrogen production electrode II and pass it into the air through the hydrogen discharge pipe II.

[0009] As a further technical improvement, a filter part I is provided between the water storage chamber I and the oxygen production chamber I; a filter part II is provided between the water storage chamber II and the oxygen production chamber II; a water pump is connected to the water inlet pipe I; and a water pump is provided between the outlet of the filter part II and the oxygen production chamber II.

[0010] As a further technical improvement, the catalyst box is provided with a catalyst filling port; a catalyst liquid pump is provided on the pipeline between the catalyst box and the electrolysis box. Electrolyte can be added to the catalyst box through the catalyst filling port to accelerate the catalytic electrolysis of water and improve the electrolysis efficiency; the electrolyte can be an ion-rich solution to increase the conductivity of water; the catalyst liquid pump is used to pump the electrolyte liquid into the electrolysis box.

[0011] As a further technical improvement, the scrubber device includes a scrubber tank I and a scrubber tank II; the pipeline connected to the anode electrolysis part I is passed into the lower part of the scrubber tank I; a secondary scrubber pipe is connected between the top of the scrubber tank I and the lower part of the scrubber tank II. Water can be added to the scrubber tank I and the scrubber tank II, and the oxygen is scrubbed twice before being passed into the oxygen compression device.

[0012] As a further technical improvement, the oxygen compression device includes a compressor and a refrigerator connected in sequence; the outlet of the scrubber leads to the compressor; the outlet of the refrigerator leads to the oxygen storage cylinder; the oxygen storage cylinder is provided with a pressure gauge; the oxygen outlet is provided with a safety valve. The oxygen compression device can compress oxygen and form liquid oxygen under the action of the refrigerator and store it in the oxygen storage cylinder.

[0013] As a further technical improvement, the water storage chamber I and the catalyst box are respectively provided with a liquid level sensor I and a liquid level sensor II; the bottom of the anode electrolysis part I is provided with an electrode base; an oxygen storage pipe is connected between the refrigerator and the oxygen storage cylinder; an oxygen storage pump is provided on the oxygen storage pipe; and an oxygen supply pipe is provided on the oxygen bag. The liquid level sensor I and the liquid level sensor II are used to sense the liquid level, and an alarm will be issued when the liquid level is low or high; the electrode base is used to install and fix the anode electrolysis part I; the oxygen storage pump and the oxygen storage pipe pass liquid oxygen into the oxygen storage cylinder.

[0014] As a further technical improvement, the outlets of the oxygen collection cover I, hydrogen collection cover I, oxygen collection cover II and hydrogen collection cover II are all provided with water-proof breathable membranes; the indoor oxygen generator is provided with a control panel I and a door I; the oxygen water kettle is provided with a control panel II and a door II; the water storage chamber I is provided with a top cover. The water-proof breathable membrane allows gas to pass through, but water cannot pass through; the control panel I and the control panel II are used for operation; the door I and the door II can be opened to perform equipment maintenance.

[0015] The method of using the above-mentioned plateau oxygen generator is as follows:

[0016] Indoor oxygen production: The indoor oxygen generator is placed indoors or in a car. Water is filled in the water storage chamber I, and the water enters the electrolysis box; the oxygen-generating electrode I is positively charged, and the hydrogen-generating electrode I is negatively charged; an electrolytic catalyst is added to the catalytic box; the electrolytic catalyst enters the electrolysis box, and the oxygen-generating electrode I electrolyzes water to produce oxygen, which is introduced into the scrubber through the oxygen collecting cover I; then the oxygen enters the compressor and the refrigerator in turn to be compressed and cooled to form a liquid, and is stored in the oxygen storage cylinder; the oxygen outlet of the oxygen storage cylinder is opened as needed to increase oxygen indoors; and the hydrogen electrode I electrolyzes water to produce hydrogen, which passes through the hydrogen collecting cover I and enters the hydrogen exhaust pipe I, and is discharged outdoors or outside the car;

[0017] Oxygen production with a kettle: Bring an oxygen kettle with you when working outdoors on the plateau, and add water to the water storage chamber II; the water enters the oxygen production chamber II and is electrolyzed by the oxygen production electrode II to produce oxygen; the oxygen is sent out of the oxygen production kettle through the oxygen collection cover II and the oxygen discharge pipe; at this time, the user can directly connect the oxygen inhalation tube to the oxygen discharge pipe, or introduce the oxygen into the oxygen bag for storage; when using an oxygen bag, the oxygen inhalation tube can be connected to the oxygen bag to inhale oxygen through the oxygen bag; and the hydrogen produced by the electrolysis of water by the hydrogen production electrode II is discharged into the air through the hydrogen discharge pipe II;

[0018] Equipment power supply: Power on the base and place the indoor oxygen concentrator in function slot Ⅰ. At this time, the power input end of the indoor oxygen concentrator is connected to the power supply in the base to power the indoor oxygen concentrator; place the oxygen kettle in function slot Ⅱ to charge the oxygen kettle.

[0019] The technical solution of the present invention has the following beneficial effects:

[0020] 1. The present invention can produce oxygen indoors or in a car through an indoor oxygen generator, so that the oxygen content in a closed space or a semi-closed space is increased, which helps to alleviate and reduce the altitude sickness caused by hypoxia in a plateau environment and helps people live better on the plateau.

[0021] 2. The present invention can generate oxygen during outdoor activities through the oxygen-generating kettle and supply oxygen to people in time, ensuring that people can obtain sufficient oxygen during outdoor activities, reducing and alleviating the occurrence and symptoms of altitude sickness, avoiding carrying too many oxygen cylinders when going out, and saving time and effort.

[0022] 3. The catalytic box of the present invention can pass electrolyte into the electrolytic box to help improve the conductivity of water, accelerate the electrolysis of water, and improve the efficiency of electrolysis of water to obtain more oxygen.

[0023] 4. The present invention generates and uses oxygen through electrolysis of water. The obtained oxygen is clean and hygienic. The obtained oxygen is further ensured to be hygienic and safe through a gas washing device. The present invention is suitable for oxygen supply in plateau areas.

[0024] 5. The present invention has an emergency oxygen production mode, which can quickly produce oxygen when a person is suffering from hypoxia, so that the person suffering from hypoxia can breathe oxygen. In normal use, the emergency oxygen production hole is automatically blocked to protect the electrode and extend the life of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a schematic diagram of the overall structure of the method and device of the present invention.

[0026] Figure 2 It is a structural schematic diagram of the indoor oxygen concentrator in the present invention.

[0027] Figure 3 It is a schematic diagram of the structure of the oxygen-generating kettle in the present invention.

[0028] Figure 4 The schematic diagram of the installation structure between the emergency oxygen generating start-up cover and the oxygen collecting cover I of the invention is Figure 2 Schematic diagram of the enlarged structure at point A in the middle.

[0029] Figure numerals: 1-base, 2-indoor oxygen generator, 3-oxygen kettle, 4-water storage chamber I, 5-oxygen production chamber I, 6-control chamber I, 7-oxygen collection chamber, 8-oxygen storage chamber, 9-water storage chamber II, 10-filter part II, 11-control chamber II, 12-oxygen production chamber II, 13-oxygen bag;

[0030] 101-Function slot Ⅰ, 102-Function slot Ⅱ, 201-Control panel Ⅰ, 202-Warehouse door Ⅰ, 301-Control panel Ⅱ, 302-Warehouse door Ⅱ, 303-Drinking port, 401-Liquid level sensor Ⅰ, 402-Filter part Ⅰ, 403-Top cover, 501-Electrolysis box, 502-Oxygen collection cover Ⅰ, 503-Hydrogen collection cover Ⅰ, 504-Oxygen production electrode Ⅰ, 505-Hydrogen production electrode Ⅰ, 506-Hydrogen production electrode Ⅰ, 507-Oxygen exhaust washing pipe, 508-Hydrogen exhaust pipe Ⅰ, 509-Catalytic box, 510-Catalytic liquid pump, 511-Liquid level sensor Ⅱ, 512-Catalyst filling port, 513-Water-proof breathable membrane, 514-Water inlet pipe Ⅰ, 515-Catalytic liquid pipe, 516-Emergency oxygen production start cover, 5 17-fan blades, 518-emergency oxygen production hole, 519-floating limit ring, 520-emergency oxygen outlet pipe, 521-floating ring, 601-control unit I, 701-gas washing tank I, 702-gas washing tank II, 703-compressor, 704-refrigeration machine, 801-oxygen storage cylinder, 802-oxygen storage pipe, 803-oxygen storage pump, 804-oxygen outlet, 805-safety valve, 806-pressure gauge, 901-water inlet pipe II, 1101-control unit II, 1201-oxygen production electrode II, 1202-hydrogen production electrode II, 1203-oxygen collection cover II, 1204-hydrogen collection cover II, 1205-oxygen exhaust pipe, 1206-hydrogen exhaust pipe II, 1207-water pump, 1301-oxygen addition pipe, 1302-oxygen absorption pipe. DETAILED DESCRIPTION

[0031] The present invention will be further described below in conjunction with the accompanying drawings.

[0032] Embodiment 1:

[0033] like Figures 1 to 4As shown, a plateau oxygen production device includes a base 1, an indoor oxygen generator 2 and an oxygen water bottle 3; the base 1 is provided with a functional slot Ⅰ101 matching the indoor oxygen generator 2 and a functional slot Ⅱ102 matching the oxygen water bottle 3; the indoor oxygen generator 2 includes a water storage chamber Ⅰ4, an oxygen production chamber Ⅰ5, a control chamber Ⅰ6, an oxygen collection chamber Ⅰ7 and an oxygen storage chamber 8; the oxygen production chamber 5 is provided with an electrolytic box 501 and a catalyst box 509; a water inlet pipe is connected between the water storage chamber 4 and the electrolytic box 501 Ⅰ514; the catalyst box 509 is connected to the electrolytic box 501 through a pipeline; the electrolytic box 501 is provided with an anode electrolysis part Ⅰ and a cathode electrolysis part Ⅰ; the control room 6 is provided with a control part Ⅰ601; the anode electrolysis part Ⅰ and the cathode electrolysis part Ⅰ are both electrically connected to the output end of the control part Ⅰ601; the oxygen collecting chamber 7 is provided with a gas washing device and an oxygen compression device connected in sequence; the anode electrolysis part Ⅰ is connected to the gas washing device through a pipeline; the cathode electrolysis part Ⅰ is connected to the gas washing device through a pipeline Out of the room; the oxygen chamber 8 is provided with an oxygen cylinder 801; the oxygen compression device is connected to the oxygen cylinder 801; the oxygen cylinder 801 is provided with an oxygen outlet 804; the oxygen-making kettle 3 includes a water storage chamber Ⅱ9, a control chamber Ⅱ11 and an oxygen-making chamber Ⅱ12; a water inlet pipe Ⅱ901 is connected between the water storage chamber Ⅱ9 and the oxygen-making chamber Ⅱ12; the control chamber Ⅱ11 is provided with a control unit Ⅱ1101; the oxygen-making chamber Ⅱ12 is provided with an anode electrolysis unit Ⅱ and a cathode electrolysis unit Ⅱ The bottom of the anode electrolysis part II and the cathode electrolysis part II are electrically connected to the output end of the control part II1101; the upper end of the anode electrolysis part II is connected to an oxygen exhaust pipe 1205 that passes out of the oxygen-generating kettle 3; the oxygen exhaust pipe 1205 is movably and detachably connected to an oxygen bag 13; the oxygen bag 13 is provided with a detachable oxygen absorption tube 1302; the top of the oxygen-generating kettle 3 is provided with a drinking port 303; the control part I601 and the control part II1101 are both provided with an energy supply module and a control module.

[0034] The anode electrolysis part I and the anode electrolysis part II respectively include an oxygen collecting cover I 502, an oxygen producing electrode I 504, an oxygen collecting cover II 1203, and an oxygen producing electrode II 1201; the oxygen collecting cover I 502 and the oxygen collecting cover II 1203 are respectively covered on the oxygen producing electrode I 504 and the oxygen producing electrode II 1201; the top of the oxygen collecting cover I 502 is connected with an oxygen exhaust washing pipe 507 which leads to a washing device; the top of the oxygen collecting cover II 1203 is connected with an oxygen exhaust pipe 1205; the oxygen producing electrode I 504 and the oxygen producing electrode II 1201 are respectively connected to the positive output end of the power supply module of the control part I 601 and the control part II 1101; the oxygen collecting cover I 502 is provided with an emergency oxygen production starting cover 516; the oxygen exhaust washing pipe 507 is connected with an emergency oxygen outlet pipe 520.The emergency oxygen production start-up cover 516 can be movably sleeved on the outside of the oxygen collection cover I 502; a floating ring 521 is provided on the top of the emergency oxygen production start-up cover 516; a fan blade 517 is provided on the emergency oxygen production start-up cover 516; a floating limit ring 519 is provided on the oxygen collection cover I 502; an emergency oxygen production hole 518 is provided on the oxygen collection cover I 502; the emergency oxygen production start-up cover 516 floats outside the emergency oxygen production hole 518 and blocks the emergency oxygen production hole 518; the outlet of the catalyst box 509 is connected to a catalyst liquid pipe 515 which is tilted downward and aimed at the emergency oxygen production hole 518; the emergency outlet The oxygen pipe 520 is provided with a solenoid valve; if a person who is short of oxygen needs emergency oxygen inhalation, and the oxygen storage cylinder 801 continues to release oxygen and there is not enough oxygen inside, the solenoid valve of the emergency oxygen outlet pipe 520 can be controlled to open, and at the same time, the current of the electrolyzed water is increased, and the power of the catalytic liquid pump 510 is increased, so that the amount of catalytic liquid sprayed out increases, and the water flow drives the fan blade 517 to rotate, giving the water an upward thrust. At this time, the fan blade 517 moves downward due to the reaction force of the water, and the emergency oxygen production hole 518 is exposed; the catalytic liquid is sprayed into the emergency oxygen production hole 518, and the conductive ions around the oxygen production electrode I 504 surge, and the oxygen production hole 518 is exposed. The current becomes larger, so that the efficiency of water electrolysis becomes higher, and oxygen quickly flows out from the emergency oxygen outlet pipe 520 for oxygen supply; the emergency oxygen outlet pipe 520 is connected to an oxygen mask and an air inlet pipe, which can be adjusted to introduce appropriate air to avoid excessive oxygen concentration; when the catalytic liquid is sprayed into the emergency oxygen production hole 518, the water flow acting on the fan blade 517 becomes smaller, so it stops rotating, and an inclined water flow passes through the floating ring 521, so that the emergency oxygen production start cover 516 will not float up, keeping the emergency oxygen production hole 518 exposed; since the oxygen production electrode I 504 has a certain lifespan, and the catalytic liquid pipe 515 directly flows to the oxygen production electrode Although blowing catalytic liquid into Ⅰ504 can increase the efficiency of oxygen production by electrolysis of water, it will also reduce its lifespan. Therefore, when it is not an emergency oxygen production situation, it is necessary to cover the emergency oxygen production hole 518 through the emergency oxygen production start-up cover 516; after the emergency oxygen production is completed, the catalytic liquid flow becomes smaller, so that the emergency oxygen production start-up cover 516 floats up and covers the emergency oxygen production hole 518 again, and the catalytic liquid flow becomes smaller and cannot drive the emergency oxygen production start-up cover 516 to rotate; when in use, the liquid in the electrolytic box 501 is not full, and the catalytic liquid can be injected; the electrolytic box 501 is provided with a drain pipe; the emergency oxygen outlet pipe 520 can also be connected after the gas washing tank.

[0035] The cathode electrolysis part I and the cathode electrolysis part II respectively include a hydrogen collecting cover I503, a hydrogen production electrode I505, a hydrogen collecting cover II1204, and a hydrogen production electrode II1202; the hydrogen collecting cover I503 and the hydrogen collecting cover II1204 are respectively covered on the hydrogen production electrode I505 and the hydrogen production electrode II1202; the tops of the hydrogen collecting covers I503 and the hydrogen collection covers II1204 are respectively connected with a hydrogen exhaust pipe I508 and a hydrogen exhaust pipe II1206 leading to the outside of the room; the hydrogen electrode I505 and the hydrogen production electrode II1202 are respectively connected to the negative output terminals of the power supply modules of the control part I601 and the control part II1101.

[0036] A filter part I402 is provided between the water storage chamber I4 and the oxygen production chamber I5; a filter part II10 is provided between the water storage chamber II9 and the oxygen production chamber II12; a water pump is connected to the water inlet pipe I514; a water pump 1207 is provided between the outlet of the filter part II10 and the oxygen production chamber II12.

[0037] The catalyst box 509 is provided with a catalyst filling port 512 ; a catalyst liquid pump 510 is provided on the pipeline between the catalyst box 509 and the electrolysis box 501 . The outlet of the catalyst liquid pump 510 is connected to a catalyst liquid pipe 515 .

[0038] The scrubbing device comprises a scrubbing tank I 701 and a scrubbing tank II 702; the pipeline connected to the anode electrolysis part I leads to the lower part of the scrubbing tank I 701; a secondary scrubbing pipe is connected between the top of the scrubbing tank I 701 and the lower part of the scrubbing tank II 702.

[0039] The oxygen compression device includes a compressor 703 and a refrigerator 704 connected in sequence; the outlet of the scrubber is connected to the compressor 703; the outlet of the refrigerator 704 is connected to the oxygen storage cylinder 801; the oxygen storage cylinder 801 is provided with a pressure gauge 806; the oxygen outlet 804 is provided with a safety valve 805. The scrubber tank I 701 and the scrubber tank II 702 are close to the shell of the indoor oxygen generator 2, and the compressor 703 and the refrigerator 704 are arranged near the middle of the indoor oxygen generator 2; the shell of the indoor oxygen generator 2 is provided with sound insulation materials, such as sound insulation cotton, etc.; such a design can reduce the noise of the compressor 703 and the refrigerator 704, and avoid excessive noise when the equipment is running.

[0040] The method of use of the present invention is as follows:

[0041] Indoor oxygen production: the indoor oxygen generator 2 is placed indoors or in a car, water is filled in the water storage chamber Ⅰ4, and the water enters the electrolytic box 501; the oxygen-producing electrode Ⅰ504 is positively charged, and the hydrogen-producing electrode Ⅰ505 is negatively charged; an electrolytic catalyst is added to the catalytic box 509; the electrolytic catalyst enters the electrolytic box 501, and the oxygen-producing electrode Ⅰ504 electrolyzes water to produce oxygen, and the oxygen is introduced into the scrubber through the oxygen collecting cover Ⅰ502; then the oxygen enters the compressor 703 and the refrigerator 704 in turn to be compressed and cooled to form a liquid, and is stored in the oxygen storage cylinder 801; the oxygen outlet 804 of the oxygen storage cylinder 801 is opened as needed to increase oxygen indoors; and the hydrogen electrode Ⅰ505 electrolyzes water to produce hydrogen, which passes through the hydrogen collecting cover Ⅰ503 and enters the hydrogen exhaust pipe Ⅰ508 and is discharged outdoors or outside the car;

[0042] Kettle oxygen production: When working outdoors on the plateau, bring the oxygen production kettle 3 with you and add water to the water storage chamber Ⅱ9; the water enters the oxygen production chamber Ⅱ12 and is electrolyzed by the oxygen production electrode Ⅱ1201 to produce oxygen; the oxygen is sent out of the oxygen production kettle 3 through the oxygen collection cover Ⅱ1203 and the oxygen discharge pipe 1205; at this time, the user can directly connect the oxygen absorption tube 1302 to the oxygen discharge pipe 1205, or introduce the oxygen into the oxygen bag 13 for storage; when using the oxygen bag 13, the oxygen absorption tube 1302 can be connected to the oxygen bag 13 to absorb oxygen through the oxygen bag; and the hydrogen produced by the electrolysis of water by the hydrogen production electrode Ⅱ1202 is discharged into the air through the hydrogen discharge pipe Ⅱ1206;

[0043] Equipment power supply: Power on the base 1, and place the indoor oxygen concentrator 2 in the function slot Ⅰ101. At this time, the power input end of the indoor oxygen concentrator 2 is connected to the power supply in the base 1, and the indoor oxygen concentrator 2 can be powered; put the oxygen kettle 3 in the function slot Ⅱ102, and the oxygen kettle 3 can be charged.

[0044] Embodiment 2:

[0045] The difference between this embodiment and the first embodiment is that: the water storage chamber Ⅰ4 and the catalyst box 509 are respectively provided with a liquid level sensor Ⅰ401 and a liquid level sensor Ⅱ511; an electrode base 506 is provided at the bottom of the anode electrolysis part Ⅰ; an oxygen storage tube 802 is connected between the refrigerator 704 and the oxygen storage cylinder 801; an oxygen storage pump 803 is provided on the oxygen storage tube 802; and an oxygenation tube 1301 is provided on the oxygen bag 13.

[0046] The method of use of this embodiment is the same as that of the first embodiment.

[0047] Embodiment three:

[0048] The difference between this embodiment and the second embodiment is that the outlets of the oxygen collecting cover I 502, the hydrogen collecting cover I 503, the oxygen collecting cover II 1203 and the hydrogen collecting cover II 1204 are all provided with a waterproof breathable membrane 513; the indoor oxygen generator 2 is provided with a control panel I 201 and a compartment door I 202; the oxygen making kettle 3 is provided with a control panel II 301 and a compartment door II 302; the water storage chamber I 4 is provided with a top cover 403.

[0049] The method of use of this embodiment is the same as that of the first embodiment.

[0050] Embodiment 4:

[0051] The difference between this embodiment and the third embodiment is that: the water storage chamber Ⅰ4 and the catalyst box 509 are respectively provided with a liquid level sensor Ⅰ401 and a liquid level sensor Ⅱ511; the bottom of the anode electrolysis part Ⅰ is provided with an electrode base 506; an oxygen storage pipe 802 is connected between the refrigerator 704 and the oxygen storage cylinder 801; an oxygen storage pump 803 is provided on the oxygen storage pipe 802; and an oxygen supply pipe 1301 is provided on the oxygen bag 13. The outlets of the oxygen collection cover Ⅰ502, the hydrogen collection cover Ⅰ503, the oxygen collection cover Ⅱ1203 and the hydrogen collection cover Ⅱ1204 are all provided with a water-proof and breathable membrane 513; the indoor oxygen generator 2 is provided with a control panel Ⅰ201 and a compartment door Ⅰ202; the oxygen making kettle 3 is provided with a control panel Ⅱ301 and a compartment door Ⅱ302; and the water storage chamber Ⅰ4 is provided with a top cover 403.

[0052] The method of use of this embodiment is the same as that of the first embodiment.

[0053] The above embodiments are only exemplary embodiments of the present invention and are not intended to limit the present invention. The protection scope of the present invention is defined by the claims. Those skilled in the art may make various modifications or equivalent substitutions to the present invention within the essence and protection scope of the present invention, and such modifications or equivalent substitutions shall also be deemed to fall within the protection scope of the present invention.

[0054] In the description of the present invention, it should be noted that the directions or positional relationships indicated by the terms "inside", "front", "back", "left", "right", etc. are based on the directions or positional relationships shown in the accompanying drawings, or are the directions or positional relationships in which the inventive product is usually placed when in use. They are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific direction, be constructed and operated in a specific direction, and therefore cannot be understood as a limitation on the present invention.

[0055] In the description of the present invention, it is also necessary to explain that, unless otherwise clearly specified and limited, the terms "disposed" and "connected" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be an indirect connection through an intermediate medium, or it can be the internal communication of two elements. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

Claims

1. A plateau oxygen production device, characterized in that: The device comprises a base (1), an indoor oxygen concentrator (2) and an oxygen concentrator kettle (3); the base (1) is provided with a functional slot I (101) matching the indoor oxygen concentrator (2) and a functional slot II (102) matching the oxygen concentrator kettle (3); The indoor oxygen generator (2) comprises a water storage chamber I (4), an oxygen production chamber I (5), a control chamber I (6), an oxygen collection chamber (7) and an oxygen storage chamber (8); an electrolytic box (501) and a catalyst box (509) are arranged in the oxygen production chamber I (5); a water inlet pipe I (514) is connected between the water storage chamber I (4) and the electrolytic box (501); the catalyst box (509) is connected to the electrolytic box (501) through a pipe; an anode electrolysis part I and a cathode electrolysis part I are arranged in the electrolytic box (501); a control part I (601) is arranged in the control chamber I (6); the anode electrolysis part I and the cathode electrolysis part I are both electrically connected to the output end of the control part I (601); a gas washing device and an oxygen compression device are arranged in sequence in the oxygen collection chamber (7); The anode electrolysis part I is connected to the gas washing device through a pipeline; the cathode electrolysis part I is connected to the outside of the room through a pipeline; an oxygen storage cylinder (801) is provided in the oxygen chamber (8); the oxygen compression device is connected to the oxygen storage cylinder (801); the oxygen storage cylinder (801) is provided with an oxygen outlet (804); The oxygen-generating kettle (3) comprises a water storage chamber II (9), a control chamber II (11) and an oxygen-generating chamber II (12); a water inlet pipe II (901) is connected between the water storage chamber II (9) and the oxygen-generating chamber II (12); a control unit II (1101) is arranged in the control chamber II (11); an anode electrolysis unit II and a cathode electrolysis unit II are arranged in the oxygen-generating chamber II (12); the bottoms of the anode electrolysis unit II and the cathode electrolysis unit II are electrically connected to the output end of the control unit II (1101); the upper end of the anode electrolysis unit II is connected to an oxygen exhaust pipe (1205) which is connected to the outside of the oxygen-generating kettle (3); the oxygen exhaust pipe (1205) is movably and detachably connected to an oxygen bag (13); the oxygen bag (13) is provided with a detachable oxygen inhalation pipe (1302); a water drinking port (303) is arranged at the top of the oxygen-generating kettle (3); The control unit I (601) and the control unit II (1101) are both provided with a power supply module and a control module.

2. The plateau oxygen production device according to claim 1, characterized in that: The anode electrolysis part I and the anode electrolysis part II respectively include an oxygen collecting cover I (502), an oxygen producing electrode I (504), an oxygen collecting cover II (1203), and an oxygen producing electrode II (1201); The oxygen collecting cover I (502) and the oxygen collecting cover II (1203) are respectively covered on the oxygen producing electrode I (504) and the oxygen producing electrode II (1201); the top of the oxygen collecting cover I (502) is connected to an oxygen exhaust washing pipe (507) which is connected to a washing device; the top of the oxygen collecting cover II (1203) is connected to an oxygen exhaust pipe (1205); the oxygen producing electrode I (504) and the oxygen producing electrode II (1201) are respectively connected to the positive output end of the power supply module of the control part I (601) and the control part II (1101); the oxygen collecting cover I (502) is provided with an emergency oxygen production starting cover (516); the oxygen exhaust washing pipe (507) is connected to an emergency oxygen outlet pipe (520).

3. The plateau oxygen production device according to claim 1, characterized in that: The cathode electrolysis part I and the cathode electrolysis part II respectively include a hydrogen collecting cover I (503), a hydrogen production electrode I (505), a hydrogen collecting cover II (1204), and a hydrogen production electrode II (1202); the hydrogen collecting cover I (503) and the hydrogen collecting cover II (1204) are respectively covered on the hydrogen production electrode I (505) and the hydrogen production electrode II (1202); the tops of the hydrogen collecting cover I (503) and the hydrogen collection cover II (1204) are respectively connected with a hydrogen discharge pipe I (508) and a hydrogen discharge pipe II (1206) leading to the outside of the room; the hydrogen electrode I (505) and the hydrogen production electrode II (1202) are respectively connected to the negative output terminals of the power supply modules of the control part I (601) and the control part II (1101).

4. The plateau oxygen production device according to claim 1, characterized in that: A filter part I (402) is provided between the water storage chamber I (4) and the oxygen production chamber I (5); a filter part II (10) is provided between the water storage chamber II (9) and the oxygen production chamber II (12); a water pump is connected to the water inlet pipe I (514); a water pump (1207) is provided between the outlet of the filter part II (10) and the oxygen production chamber II (12).

5. The plateau oxygen production device according to claim 1, characterized in that: The catalyst box (509) is provided with a catalyst filling port (512); and a catalyst liquid pump (510) is provided on the pipeline between the catalyst box (509) and the electrolytic box (501).

6. The plateau oxygen production device according to claim 1, characterized in that: The scrubbing device comprises a scrubbing tank I (701) and a scrubbing tank II (702); a pipeline connected to the anode electrolysis part I leads to the lower part of the scrubbing tank I (701); a secondary scrubbing pipe is connected between the top of the scrubbing tank I (701) and the lower part of the scrubbing tank II (702).

7. The plateau oxygen production device according to claim 1, characterized in that: The oxygen compression device comprises a compressor (703) and a refrigerator (704) connected in sequence; the outlet of the gas scrubber leads to the compressor (703); the outlet of the refrigerator (704) leads to the oxygen storage cylinder (801); the oxygen storage cylinder (801) is provided with a pressure gauge (806); and the oxygen outlet (804) is provided with a safety valve (805).

8. The plateau oxygen production device according to claim 1, characterized in that: The water storage chamber I (4) and the catalyst box (509) are respectively provided with a liquid level sensor I (401) and a liquid level sensor II (511); an electrode base (506) is provided at the bottom of the anode electrolysis part I; an oxygen storage pipe (802) is connected between the refrigerator (704) and the oxygen storage cylinder (801); an oxygen storage pump (803) is provided on the oxygen storage pipe (802); and an oxygen supply pipe (1301) is provided on the oxygen bag (13).

9. The plateau oxygen production device according to claim 1, characterized in that: The outlets of the oxygen collecting hood I (502), hydrogen collecting hood I (503), oxygen collecting hood II (1203) and hydrogen collecting hood II (1204) are all provided with water-proof and breathable membranes (513); the indoor oxygen generator (2) is provided with a control panel I (201) and a compartment door I (202); the oxygen making kettle (3) is provided with a control panel II (301) and a compartment door II (302); and the water storage chamber I (4) is provided with a top cover (403).

10. The method for using the plateau oxygen generator according to any one of claims 1 to 9, characterized in that: The following steps are involved: 1) Indoor oxygen production: an indoor oxygen generator (2) is placed indoors or in a vehicle, water is filled in a water storage chamber I (4), and the water enters an electrolytic box (501); the oxygen-producing electrode I (504) is positively charged, and the hydrogen-producing electrode I (505) is negatively charged; an electrolytic catalyst is added to a catalytic box (509); the electrolytic catalyst enters the electrolytic box (501), the oxygen-producing electrode I (504) electrolyzes water to produce oxygen, and the oxygen is introduced into a scrubber through an oxygen collecting cover I (502); then the oxygen enters a compressor (703) and a refrigerator (704) to be compressed and cooled to form a liquid, and is stored in an oxygen storage cylinder (801); the oxygen outlet (804) of the oxygen storage cylinder (801) is opened as needed to increase oxygen indoors; and the hydrogen electrode I (505) electrolyzes water to produce hydrogen, which passes through the hydrogen collecting cover I (503) and enters a hydrogen discharge pipe I (508) to be discharged outdoors or outside the vehicle; 2) Oxygen production by water bottle: When working outdoors on the plateau, bring an oxygen-producing water bottle (3) and add water to the water storage chamber II (9); the water enters the oxygen-producing chamber II (12) and is electrolyzed by the oxygen-producing electrode II (1201) to produce oxygen; the oxygen is sent out of the oxygen-producing water bottle (3) through the oxygen collecting cover II (1203) and the oxygen exhaust pipe (1205); at this time, the user can directly connect the oxygen inhalation tube (1302) to the oxygen exhaust pipe (1205), or introduce the oxygen into the oxygen bag (13) for storage; when using the oxygen bag (13), the oxygen inhalation tube (1302) can be connected to the oxygen bag (13) to inhale oxygen through the oxygen bag; and the hydrogen produced by the electrolysis of water by the hydrogen-producing electrode II (1202) is discharged into the air through the hydrogen exhaust pipe II (1206); 3) Powering the equipment: The base (1) is powered on, and the indoor oxygen concentrator (2) is placed in the functional slot I (101). At this time, the power input end of the indoor oxygen concentrator (2) is connected to the power supply in the base (1), and the indoor oxygen concentrator (2) can be powered; the oxygen kettle (3) is placed in the functional slot II (102), and the oxygen kettle (3) can be charged.

Images