Building oxygen supply device and construction method thereof

Abstract

The present invention relates to a building oxygen supply device and a construction method thereof, comprising: an oxygen generator which concentrates oxygen in a state in which nitrogen in air flowing in from the outside is captured and separated, and stores the oxygen in an oxygen tank located on one side of the inside; an oxygen supply line, one end of which is connected to an oxygen pipe on one side of the oxygen tank, one end of which is connected to an LED wire on one side of a power supply part of the oxygen generator, and one end of which is connected to a controller wire on one side of a control part of the oxygen generator, which are housed in a combined duct cable; the oxygen releaser is mounted in a room, is connected to the other end connected with the oxygen pipe on one side and the other end connected with the LED wire on one side, and is used for emitting oxygen into the room and providing illumination at the same time; and a controller which is installed in a room, the other side of which is connected to the other side of the controller wire, and which controls the operation of the oxygen generator through the control unit.

Description

Technical Field

[0001] The present invention relates to a device for supplying oxygen to a building interior, and more particularly to a building oxygen supply device and a construction method thereof, which can reduce the installation cost of the oxygen supply device and improve the installation efficiency. Background Art

[0002] Generally, the effects of hypoxia on the human body are widely known through various papers and news.

[0003] For example, hypoxia can cause severe damage to brain function, leading to headaches, memory loss, Alzheimer's disease, encephalomalacia, as well as decreased liver function and slower blood circulation.

[0004] In particular, when people drink alcohol, the alcohol in the wine will decompose into acetaldehyde, and acetaldehyde will further decompose into carbonic acid and water. Oxygen is required in this process.

[0005] Therefore, the more you drink, the more oxygen you need and the more severe the hypoxia will be.

[0006] In addition, in the case of ordinary drinkers, drinking is accompanied by excessive smoking. Smoking will further increase the body's demand for oxygen, while also hindering the smooth supply of oxygen through the lungs. Drinking and smoking at the same time will cause the human body to experience excessive hypoxia.

[0007] Therefore, it is necessary to provide more oxygen for drinkers or drinkers who smoke.

[0008] Therefore, recently people have been using oxygen generators to produce oxygen and supply it indoors. Oxygen generators are mechanical devices that separate air sucked in from the outside into oxygen and gases other than oxygen. Various types of oxygen generators have been developed. The methods of producing oxygen with oxygen generators include methods using adsorbents and gas separators that utilize differences in gas diffusion and permeation rates.

[0009] The system for supplying oxygen generated by the oxygen generator to a desired location is an oxygen supply device, which includes an oxygen generator and an oxygen supply pipeline and a controller for accurately and safely supplying the oxygen generated by the oxygen generator to the desired location.

[0010] This oxygen supply device can be used in residential and building office spaces, etc., and its purpose is to provide a comfortable environment by maintaining the oxygen concentration in the place at an optimal level.

[0011] However, when installing such an oxygen supply device, the existing oxygen supply pipeline is directly exposed to the outside, which has a poor appearance. The oxygen supply pipeline exposed to the outside is easily damaged by external influences, occupies unnecessary space, and reduces space efficiency. Summary of the Invention

[0012] Technical problems to be solved The present invention is proposed in view of the above-mentioned problems. Its purpose is to provide an oxygen supply device for a building and a construction method thereof, which can effectively prevent the oxygen supply pipeline from being exposed to the outside, make the interior beautiful, and facilitate the laying of the oxygen supply pipeline by laying the oxygen supply pipeline of the oxygen supply device in the ceiling and wall inside a residence or building where communication lines have been installed.

[0013] The technical problems to be solved by the present invention are not necessarily limited to the above-mentioned technical problems, and ordinary technicians in the technical field to which the present invention belongs can clearly understand other technical problems not mentioned from the following description.

[0014] Technical Solution In order to achieve the above-mentioned object, the building oxygen supply device of the present invention is characterized by comprising: an oxygen generator that concentrates oxygen by capturing and separating nitrogen from air flowing in from the outside, and stores the oxygen in an oxygen storage tank located on one side of the interior; An oxygen supply line, one end of which is connected to an oxygen tube on one side of the oxygen storage tank, one end of which is connected to an LED wire on one side of the power supply unit of the oxygen generator, and one end of which is connected to a controller wire on one side of the control unit of the oxygen generator are accommodated in a combined pipeline cable; an oxygen releaser installed indoors, connected to the other end of the oxygen tube on the other side connected to the oxygen tube on one side and the other end of the LED wire on the other side connected to the LED wire on one side, emitting oxygen into the room and providing lighting at the same time; and The controller is installed indoors, has the other side connected to the other side controller wire connected to the one side controller wire, and controls the operation of the oxygen generator through the control part.

[0015] More preferably, the oxygen generator includes any one of an air purification unit for removing foreign matter and bad odor from air flowing in from the outside, a sterilization unit for sterilizing concentrated oxygen, and a dehumidification unit for removing moisture from concentrated oxygen.

[0016] More preferably, the oxygen releaser comprises one of: a ceiling-type releaser installed on a ceiling, a wall-type bubble releaser installed on a wall, a vertical releaser, and a wall-type communication outlet releaser.

[0017] More preferably, the wall-type communication outlet releaser includes: a wall-type communication outlet consisting of one insertion part for inserting a communication or cable, a wall-type communication outlet consisting of two insertion parts, or a wall-type communication outlet consisting of three insertion parts, and the accessory valve connected to the other end of the oxygen tube on the other side is exposed to the outside through the insertion part.

[0018] More preferably, a dissolved oxygen meter is provided in the room, and the measured value of the dissolved oxygen meter is transmitted to the control unit. When the dissolved oxygen level in the room deviates from the set value, the control unit of the oxygen generator adjusts the supply of oxygen to the room.

[0019] In order to achieve the purpose of the present invention, a construction method of an oxygen supply device for indoor oxygen supply in a building is characterized by comprising: The oxygen generator location selection step is used to install the oxygen generator in a place separated from the room and ventilated; an oxygen releaser position selection step for releasing the oxygen generated in the oxygen generator into the room through the oxygen releaser; a controller location selection step for installing a controller that controls the operation of the oxygen generator; and The oxygen supply pipeline laying step includes laying an oxygen pipe for connecting the oxygen generator and the oxygen releaser, an LED wire, and an oxygen supply pipeline for connecting the control part of the oxygen generator and the control baseline of the controller through the inside of the ceiling and the inside of the wall.

[0020] More preferably, the oxygen releaser comprises any one of a ceiling-mounted releaser installed on a ceiling, a wall-mounted bubble releaser installed on a wall, a movable vertical releaser, or a wall-mounted communication outlet releaser installed on a wall.

[0021] More preferably, the oxygen releaser comprises at least two of: a ceiling-mounted releaser installed on a ceiling, a wall-mounted bubble releaser installed on a wall, a vertical releaser that can be moved closer, or a wall-mounted communication outlet releaser installed on a wall.

[0022] More preferably, the wall communication outlet releaser is composed of a wall communication outlet having at least one insertion portion, wherein the insertion portion is configured to expose an accessory valve of an oxygen pipe connected to the oxygen supply line to the outside.

[0023] More preferably, the insertion portion further includes a lighting portion of an LED electric wire connected to the oxygen supply line.

[0024] More preferably, the oxygen supply pipeline laying step includes: taking into account the positions where the oxygen releaser and the controller are separated from each other, opening a portion of the ceiling, selecting the opened position as a branch point, then preparing a combined pipeline cable, connecting the combined pipeline cable to the oxygen generator through the inside of the ceiling or the inside of the wall or the entirety of the branch point, and introducing one side of the oxygen tube connected to the oxygen tank of the oxygen generator, one side of the LED wire connected to the power supply unit of the oxygen generator, and one side of the controller wire connected to the control unit of the oxygen generator into the combined pipeline cable; Prepare another combined conduit cable, connect it to the oxygen releaser through the inside of the ceiling or the inside of the wall of the branch point, or both, and then introduce the oxygen tube on the other side connected to the oxygen releaser and the LED wire on the other side into the other combined conduit cable; The steps of preparing another combined conduit cable, selecting a point on the wall where the controller will be installed and drilling a hole, connecting the other combined conduit cable to the hole drilled from the branch point through the inside of the ceiling or the inside of the wall, or both, and introducing the other side controller wire connected to the controller into the other combined conduit cable; At the branch point, the end of the oxygen tube on one side introduced through the one combined pipe cable is connected to the end of the oxygen tube on the other side introduced through the other combined pipe cable by a confidential means; At the branch point, the end of the LED wire on one side introduced through the one combined conduit cable is connected to the end of the LED wire on the other side introduced through the other combined conduit cable through an insulating device; a step of connecting an end portion of the controller wire on one side introduced through the one combined duct cable to an end portion of the controller wire on the other side introduced through the other combined duct cable through an insulating device; and The steps of neatly placing the interconnected oxygen tube, the LED wires and the controller wires into the opened branch point and closing the opened branch point.

[0025] Beneficial effects As described above, the building oxygen supply device and the construction method thereof according to the present invention have the following effects.

[0026] That is, the oxygen supply pipeline connecting the oxygen generator and the oxygen releaser installed indoors is laid between the walls or inside the ceiling of a building where communication lines are installed, so as to prevent the oxygen supply pipeline from being exposed indoors and causing a poor appearance, and to prevent the oxygen supply pipeline from being damaged by external forces, thereby making the laying of the oxygen supply pipeline easier and faster.

[0027] At the same time, whether the inventor is aware of it or not, the effects of the invention described above are naturally exerted by the characteristics of the described content, so the above effects should not be regarded as just a few effects based on the described content, rather than all effects that the inventor has identified or exists.

[0028] Furthermore, the effects of the present invention must be further determined through the overall statements of the specification, and even if not described in a clear sentence, ordinary technicians in the field to which the described content belongs should understand it through the specification. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 is a schematic diagram illustrating a system of an oxygen supply apparatus according to an embodiment of the present invention.

[0030] Figure 2 a is a structural diagram of a wall-type communication outlet releaser using an existing single-hole wall-type communication outlet according to an embodiment of the present invention.

[0031] Figure 2 b is a diagram of a wall-type communication outlet releaser utilizing an existing double-hole wall-type communication outlet according to one embodiment of the present invention.

[0032] Figure 2 c is a structural diagram of a wall-type communication outlet releaser using an existing three-hole wall-type communication outlet according to an embodiment of the present invention.

[0033] Figure 3 is a flow chart showing step by step a construction method of an oxygen supply device according to an embodiment of the present invention. DETAILED DESCRIPTION

[0034] Hereinafter, the structure and operation of the preferred embodiment according to the present invention will be described in detail with reference to the accompanying drawings.

[0035] This is to illustrate in detail the contents that can be easily implemented by those skilled in the art to which the present invention belongs, and it is not intended to limit the technical idea and scope of the present invention.

[0036] In addition, it should be noted that when adding reference numerals to the components of each drawing, the same symbols are marked, and the terms specifically defined in consideration of the configuration and operation of the present invention may vary depending on the intention or convention of the user, operator, and the definitions of these terms must be judged based on the contents of the entire specification.

[0037] First, an oxygen supply device for a building according to one embodiment of the present invention includes an oxygen generator for generating oxygen, an oxygen supply pipeline for transporting oxygen into the interior of the building and electrically controlling the oxygen, an oxygen releaser connected to these oxygen supply pipelines and supplying oxygen indoors, and a controller for appropriately discharging the oxygen generated by the oxygen generator into the interior through the oxygen generator. The specific structure of each component can be analyzed in more detail with reference to the following exemplary drawings.

[0038] First, the oxygen generator 100, When used in a relatively small space, such as a residence, a pressure swing adsorption (PSA) method can be used. For example, the oxygen generator may include an oxygen concentrator having an adsorption tower made of a zeolite adsorbent and an air compressor that supplies compressed air to the oxygen concentrator. Due to the difference in adsorption force from the compressed air supplied to the oxygen concentrator, a relatively dominant amount of nitrogen can be adsorbed into the adsorption tower, thereby producing concentrated oxygen.

[0039] Then, the concentrated oxygen is supplied to where it is needed through the oxygen storage tank, and the nitrogen adsorbed in the adsorption tower can be separated from the adsorption tower and reach the atmospheric pressure state when the air pressure applied to the adsorption tower is released.

[0040] In such an oxygen generator 100, air is typically compressed to a pressure between 2.5 atmospheres and 3.5 atmospheres and supplied to the oxygen concentrator, and nitrogen adsorbed in the oxygen concentrator is removed and discharged at atmospheric pressure.

[0041] If applied to relatively large spaces, such as offices in buildings, vacuum swing adsorption (VSA) can also be used to separate oxygen from nitrogen in the atmosphere.

[0042] This is because when passing through the oxygen concentrator under atmospheric pressure, a relatively large amount of nitrogen is adsorbed on the adsorption tower, and the oxygen is concentrated. The nitrogen adsorbed on the adsorption tower is then desorbed and separated as the vacuum is maintained in the oxygen concentrator.

[0043] On the other hand, as needed, such an oxygen generator 100 may include an air purification unit for removing foreign matter and odor from the inhaled air. For example, a HEPA filter or a dust removal filter or both may be installed in the inhalation unit for introducing air into the oxygen generator 100, and the concentrated oxygen may be configured to be discharged into the room through a separate dust removal filter before being discharged into the room.

[0044] In addition, the oxygen generator 100 may further include a dehumidification unit for removing moisture generated during the oxygen concentration process as needed, and a sterilization unit for irradiating ultraviolet rays with a wavelength of 250 to 280 nm onto the oxygen moved into the room to ensure that the oxygen moves into the room in a sterilized state.

[0045] In this case, the air purification unit, dehumidification unit, or sterilization unit may be provided in the oxygen releaser 300 described later, rather than being provided inside the oxygen generator 100 .

[0046] Furthermore, a magnetized generator may be provided in the oxygen storage tank temporarily storing concentrated oxygen in the oxygen generator 100 to convert the stored oxygen into highly reactive oxygen and transfer it into the room.

[0047] At this time, the magnetization generating part, for example, sets a permanent magnet with an N pole on the upper surface of the oxygen storage tank and a permanent magnet with an S pole on the lower surface of the oxygen storage tank, so that the oxygen stored in the oxygen storage tank is within the magnetic force range of the permanent magnet, thereby realizing the magnetization of the oxygen. Compared with ordinary oxygen, the magnetized oxygen can play the role of ions and can also be expected to achieve a deodorizing effect, thereby providing fresher oxygen for the room.

[0048] The oxygen supply line 200 is, The oxygen generator 100 and the oxygen releaser 300 described below are connected to each other. The oxygen generator 100 includes oxygen tubes 210a and 210b for transporting oxygen generated by the oxygen generator 100 to the oxygen releaser 300, LED wires 220a and 220b for electrically connecting the power supply unit of the oxygen generator 100 and the oxygen releaser 300, and controller wires 230a and 230b for electrically connecting the control unit of the oxygen generator 100 and the controller 400 described later. These oxygen tubes 210a and 210b, the LED wires 220a and 220b, and the controller wires 230a and 230b can be bundled with a connecting device such as a cable tie or accommodated in a combined conduit cable 240a, 240b, and 240c. Alternatively, they can be constructed by utilizing existing communication lines, power lines, or air conditioning lines installed in a building.

[0049] Such an oxygen supply line 200 is preferably laid inside a ceiling or inside a wall, and in an environment where it is difficult to lay it inside a ceiling or inside a wall, it is preferably molded to minimize exposure to the outside.

[0050] The oxygen releaser 300 is: Oxygen generated in the oxygen generator 100 is allowed to move through the oxygen tubes 210a, 210b in the oxygen supply line 200 and is discharged into the room.

[0051] The oxygen releaser 300 may further include a lighting device connected to the power supply portion of the oxygen generator 100 via LED wires 220a, 220b on the oxygen supply line 200, so that when the lighting device operates according to the operation of the oxygen releaser 300, the operating status of the oxygen releaser 300 can be visually checked.

[0052] In addition, when the oxygen releaser 300 also functions as a humidifier, the driving motor for driving the oscillator may be connected to the power supply unit of the oxygen generator 100 through the LED wires 220a and 220b.

[0053] The oxygen releaser 300 does not need to be specified in any one form and can be composed of a ceiling-mounted releaser 310 mounted on the ceiling, a wall-mounted bubble releaser 320 mounted on the wall, a vertical releaser 330 that can be placed at a desired location and moved close to it, a wall-mounted communication outlet releaser 340 that uses an existing wall-mounted communication outlet mounted on the wall, etc.

[0054] At this time, if Figure 2 As shown in a, b, and c, the existing wall-type communication outlet 10 can be constructed by deformation, for example, the insertion part 11 for inserting the communication or cable is composed of a single ball composed of one, a double ball composed of two insertion parts 11, a triple ball composed of three insertion parts 11, or a multi-ball composed of multiple insertion parts (not shown in the figure).

[0055] That is, Figure 2 As shown in FIG. 1 , a single-hole wall-type communication outlet 10 having an inserting portion 11 can be formed by a wall-type communication outlet releaser 340 having an inserting portion 341. Figure 2 As shown in b, the double-hole wall-type communication outlet 10 with two insertion parts 11 can be composed of a wall-type communication outlet releaser 340 with two insertion parts 11, as shown in FIG. Figure 2 As shown in Figure c, the wall-type communication outlet 10 having three insertion parts 11 can be composed of a wall-type communication outlet releaser 340 with three insertion parts 11, and the accessory valve part 341 connected to the oxygen tubes 210a and 210b can be installed to be exposed to the outside through the position of the insertion part 11.

[0056] The oxygen releaser 300 can be installed indoors by combining one or at least two of the above-mentioned ceiling-mounted releaser 310 installed on the ceiling, the wall-mounted bubble releaser 320 installed on the wall, the vertical releaser 330 movable to a desired position, or the wall-mounted communication outlet releaser 340 installed on the wall. In the case of installing multiple oxygen releasers 300, preferably, a needle valve is provided in the oxygen pipe 210b connected to each oxygen releaser 300 to achieve uniform injection of oxygen.

[0057] The controller 400 is, A device installed on either side of the room and controlling the operation of the oxygen generator 100.

[0058] The controller 400 is connected to the control portion of the oxygen generator 100 through controller wires 230a, 230b included in the oxygen supply line 200, and the controller 400 and the oxygen releaser 300 can be connected to the controller 400 with the controller wires 230a, 230b branching from any point of the oxygen supply line 200.

[0059] The controller 400 may be provided with a receiving module in the control portion of the oxygen generator 100 and the control portion of the oxygen generator 100 via the controller wires 230a, 230b, and the controller 400 may be provided with an inventive module capable of communicating with these receiving modules, so that the operation of the oxygen generator 100 is wirelessly controlled by the controller 400.

[0060] On the other hand, for example, a dissolved oxygen meter can be installed indoors as needed. By displaying the measured values ​​on these dissolved oxygen meters, users can refer to these values ​​and manually adjust the oxygen supply of the oxygen generator 100 through the control of the controller 400. In another example, when the dissolved oxygen meter is electrically connected to the control part of the oxygen generator 100, if the measured value of the dissolved oxygen meter exceeds the set value range, the control part of the oxygen generator 100 can be configured to automatically adjust the oxygen supply.

[0061] At the same time, refer to Figure 3 The construction method of the oxygen supply device thus constructed is specifically described below.

[0062] First, an oxygen generator position selection step S1 may be performed.

[0063] The oxygen generator 100 is a device that separates nitrogen from the air flowing in from the outside and produces oxygen. The oxygen generator 100 is separated from the indoor space and can be installed in a balcony, multi-purpose room, or rooftop that has no slope and is not affected by external impact. The installation location needs to be selected based on the position of the oxygen releaser 300 installed indoors and the laying position of the oxygen supply pipeline 200 used to connect the oxygen releaser 300 and the oxygen generator 100.

[0064] Since the oxygen generator 100 may generate vibration during operation after installation, the oxygen generator 100 may further include a vibration reduction device to reduce such vibration.

[0065] At this time, the vibration reduction device can be, for example, installing vibration-damping rubber on the bottom bridge of the oxygen generator 100 when the oxygen generator 100 is installed, or positioning the oxygen generator 100 on vibration-damping plates after pre-installing them on the installation surface, so as to reduce vibration and related noise that may occur during the operation of the oxygen generator 100.

[0066] When selecting the location of the oxygen generator 100, the power supply of the oxygen generator 100 needs to be considered, and in order to safely and conveniently connect the power cord 110 connected to the power supply unit of the oxygen generator 100, the oxygen generator 100 is preferably installed near a power socket.

[0067] Then, the oxygen releaser position selection step S2 may be performed.

[0068] The oxygen releaser 300 is a device for releasing the oxygen generated by the oxygen generator 100 to an appropriate location in the room. The oxygen releaser 300 does not need to be specified in any one form and can be installed in various forms according to the environment of the indoor space, for example, a ceiling-type releaser 310 installed to be suspended from the ceiling, a wall-type bubble releaser 320 installed to be installed on the wall and act as a humidifier, a vertical releaser 330 installed to be placed around the bed or on the table and move freely within a close distance, and can be installed in the form of a wall-type communication outlet releaser 340 installed on the wall, etc.

[0069] At this time, the wall-type communication outlet releaser 340 utilizes the existing wall-type communication outlet 10 installed on the indoor wall. The structure adopts a wall-type communication outlet 10 composed of a single communication 8p or CATV insertion part 11 for inserting communication or cable, or a wall-type communication outlet 10 composed of two communication 8p or CATV insertion parts 11, or a wall-type communication outlet 10 composed of three communication 8p or CATV insertion parts 11, a wall-type communication outlet releaser 340 composed of one insertion part 11, or a wall-type communication outlet releaser 340 composed of two insertion parts 11, or a wall-type communication outlet releaser 340 composed of three insertion parts 11, and the accessory valve 341 of the oxygen tubes 210a, 210b connected to the oxygen supply pipeline 200 can be constructed to be exposed to the outside through the position of the insertion part 11.

[0070] At this time, LED lights connected to the LED wires 220a, 220b of the oxygen supply line 200 may be provided in the insertion portion 11 where the accessory valve 341 is installed, so that the LED lights work together when oxygen is supplied through the accessory valve 341, thereby visually confirming the oxygen supply through the accessory valve 341.

[0071] In addition, by providing a detachable plug at the end of the accessory valve 341 , when oxygen does not need to be supplied through the accessory valve 341 , the accessory valve 341 can be plugged with the plug, thereby preventing unnecessary contamination or clogging of the accessory valve 341 by foreign matter.

[0072] Therefore, since the existing installed wall-type communication outlet 10 is utilized, this wall-type communication outlet releaser 340 is different from the ceiling-type releaser 310, the wall-type bubble releaser 320 or the vertical releaser 330, has a simple structure, is easy to manufacture, and has a low manufacturing cost. The oxygen supply pipeline 200 can be laid with reference to the wiring of the existing installed wall-type communication outlet 10, so the oxygen supply pipeline 200 can be laid simply and quickly.

[0073] Next, a controller position selection step S3 may be performed.

[0074] The controller 400 is a device connected to the oxygen generator 100 to allow a user to control the operation of the oxygen generator 100 indoors.

[0075] In order to install the controller 400, it is necessary to ensure that the controller 400 is to be installed in a location that is easily accessible to a user and can be mounted on a wall at an appropriate height.

[0076] For example, it can be installed near the indoor lighting button or the air conditioning system operation button. To this end, holes are formed by punching in the wall, and the controller wires 230b branched from the oxygen supply pipeline 200 are pulled into these holes. The controller wires 230b are then connected to the controller 400, and the controller 400 is mounted on the wall using a bracket or the like to cover the punched holes.

[0077] The controller 400 can be connected by wire via the controller wires 230a, 230b, but can also be connected wirelessly as described above. To this end, a receiving module connected to the controller can be installed inside the oxygen generator 100, and a transmitting module that communicates with the receiving module can be installed in the controller 400. This makes it possible to more conveniently control the operation of the oxygen generator 100 while carrying the controller 400 in a wireless form.

[0078] Next, the oxygen supply pipeline laying step S4 may be performed.

[0079] This is the step of laying the oxygen supply pipeline 200 connecting the oxygen generator 100, the oxygen releaser 300 and the controller 400 in an aesthetically pleasing manner indoors. Preferably, the interior of the ceiling or the wall is used to avoid being exposed to the outside as much as possible. Preferably, if it is unavoidable to be exposed to the outside, it is best to use molding and seal it in an aesthetically pleasing manner.

[0080] If the oxygen generator 100 is installed outdoors, the oxygen supply pipeline 200 can be introduced from the outdoors into the indoor space by drilling holes in a wall or other structure separating the indoor and outdoor spaces. Specifically, the oxygen supply pipeline 200 can be introduced into the indoor space through these drilled holes. If refrigeration equipment such as air conditioning is to be installed, the pre-drilled holes can be used for construction. If the equipment has not yet been installed, the assembly can be completed by connecting the air conditioning system pipes to the indoor space.

[0081] In addition, the oxygen supply line 200 may be configured by dividing one oxygen supply line 200 into a plurality of lines according to the number of oxygen releasers 300 installed.

[0082] Meanwhile, the oxygen supply pipeline laying step S4 may include the following steps.

[0083] In most cases, for the convenience of the user, the oxygen releaser 300 is located at a higher position, while the controller 400 is located at a relatively lower position, and each installation position is also separated from each other.

[0084] Therefore, considering the position where the oxygen releaser 300 and the controller 400 are separated from each other, a part of the ceiling is opened, the opened position is selected as the branch point 500, and then a combined duct cable 240a is prepared and connected to the oxygen generator 100 through the inside of the ceiling or the inside of the wall of the branch point 500, or both, and a step of introducing one side oxygen tube 210a connected to the oxygen tank of the oxygen generator 100, one side LED wire 220a connected to the power supply part of the oxygen generator 100, and one side controller wire 230a connected to the control part of the oxygen generator 100 into the one combined duct cable 240a is performed.

[0085] Then, another combined duct cable 240b may be prepared to be connected to the oxygen releaser 300 through the inside of the ceiling or the inside of the wall or both of the branch point 500, and then the other side oxygen tube 210b and the other side LED wire 220b connected to the oxygen releaser 300 are introduced into the other combined duct cable 240b together.

[0086] In addition, prepare another combined duct cable 240c, then select a point on the wall where the controller 400 will be installed and perforate it, then connect the other combined duct cable 240c to the perforation passing through the inside of the ceiling or the inside of the wall or both, and introduce the other side controller wire 230b connected to the controller 400 into the other combined duct cable 240c.

[0087] Thereafter, at the branch point 500, a step of connecting the end of the oxygen tube 210a on one side introduced through the one combined-pipe cable 240a and the end of the oxygen tube 210b on the other side introduced into the other combined-pipe cable 240b may be performed. At this time, the end of the one oxygen tube 210a and the end of the other oxygen tube 201b are connected to each other through a security device for maintaining confidentiality. For example, the end of the one oxygen tube 210a may form an accessory portion composed of an accessory valve, and the end of the other oxygen tube 210b may be connected to the accessory portion.

[0088] Then, the steps of connecting the end of one side LED wire 220a introduced through one combined conduit cable 240a and the end of the other side LED wire 220b introduced through another combined conduit cable 240b together and closing the connection portion with an insulating device (such as an insulating tape) may be performed.

[0089] Then, the step of connecting the end of the one side control lead wire 230a introduced through one combined pipe cable 240a and the end of the other side control lead wire 230b introduced through another combined pipe cable 240c together and sealing the connection portion with an insulating device (such as an insulating tape) can be performed.

[0090] Thereafter, steps of arranging and placing the connected oxygen tubes 210a, 210b, LED wires 220a, 220b, and controller wires 230a, 230b into the open branch point 500 and closing the open branch point 500 may be performed to complete.

[0091] As described above, specific embodiments have been described in the detailed description of the present invention, but various modifications can be made without departing from the scope of the described content. Therefore, the scope of the described content should not be limited to the described embodiments, but should be determined by the content equivalent to these claims and the claims described later.

[0092] Industrial availability The present invention utilizes the ceiling or wall of a house or building installed with a communication line to lay the oxygen supply line of the oxygen supply device, thereby preventing the oxygen supply line from being exposed to the outside, making the interior beautiful, and facilitating the laying of the oxygen supply line, and therefore is very useful in industry.

Claims

1. A building oxygen supply device, characterized in that: include: an oxygen generator (100) that concentrates oxygen while capturing and separating nitrogen from air flowing in from the outside, and stores the oxygen in an oxygen storage tank located on one side of the interior; An oxygen supply line (200), one end of which is connected to an oxygen tube (210a) on one side of the oxygen storage tank, one end of which is connected to an LED wire (220a) on one side of the power supply unit of the oxygen generator (100), and one end of which is connected to a controller wire (230a) on one side of the control unit of the oxygen generator (100), is housed in a combined pipeline cable (240a, 240b, 240c); an oxygen releaser (300) installed indoors, connected to the other end of the oxygen tube (210b) on the other side connected to the oxygen tube (210a) on one side and the other end of the LED wire (220b) on the other side connected to the LED wire (220a) on one side, emitting oxygen into the room and providing lighting at the same time; and The controller (400) is installed indoors, with the other side connected to the other side controller wire (230b) connected to the one side controller wire (230a), and controls the operation of the oxygen generator (100) through the control unit.

2. The building oxygen supply device according to claim 1, characterized in that: The oxygen generator (100) comprises: Any one of an air purification unit for removing foreign matter and bad odor from air flowing in from the outside, a sterilization unit for sterilizing concentrated oxygen, and a dehumidification unit for removing moisture from concentrated oxygen.

3. The building oxygen supply device according to claim 1, characterized in that: The oxygen releaser (300) comprises: One of a ceiling-type releaser (310) installed on a ceiling, a wall-type bubble releaser (320) installed on a wall, a vertical releaser (330), and a wall-type communication outlet releaser (340).

4. The building oxygen supply device according to claim 3, characterized in that: The wall type communication outlet releaser (340) comprises: The wall-type communication outlet (10) is composed of any one of one insertion part (11) for inserting a communication or cable, two insertion parts (11), or three insertion parts (11), and the accessory valve (341) connected to the other end of the oxygen tube (220b) on the other side is exposed to the outside through the insertion part (11).

5. The building oxygen supply device according to claim 1, characterized in that: A dissolved oxygen meter is provided in the room, and the measured value of the dissolved oxygen meter is transmitted to the control unit. When the dissolved oxygen content in the room deviates from the set value, the control unit of the oxygen generator (100) adjusts the supply of oxygen to the room.

6. A construction method for a building oxygen supply device, as a construction method for an oxygen supply device for indoor oxygen supply in a building, characterized in that: include: An oxygen generator location selection step (S1) is used to install the oxygen generator (100) in a place that is separated from the room and can be ventilated; An oxygen releaser position selection step (S2) is used to release the oxygen generated in the oxygen generator (100) into the room through the oxygen releaser (300); a controller location selection step (S3) for installing a controller (400) for controlling the operation of the oxygen generator (100); and The oxygen supply pipeline laying step (S4) includes laying the oxygen pipes (210a, 210b) for connecting the oxygen generator (100) and the oxygen releaser (300), the LED wires (220a, 220b), and the oxygen supply pipeline (200) for connecting the control unit of the oxygen generator (100) and the control baseline (230a, 230b) of the controller (400) through the inside of the ceiling and the inside of the wall.

7. The construction method of the building oxygen supply device according to claim 6, characterized in that: The oxygen releaser (300) comprises: Any one of a ceiling-mounted releaser (310) mounted on a ceiling, a wall-mounted bubble releaser (320) mounted on a wall, a vertical releaser (330) that can be moved closer, or a wall-mounted communication outlet releaser (340) mounted on a wall.

8. The construction method of the building oxygen supply device according to claim 6, characterized in that: The oxygen releaser (300) comprises: At least two of a ceiling-mounted releaser (310) mounted on a ceiling, a wall-mounted bubble releaser (320) mounted on a wall, a vertical releaser (330) that can be moved closer, or a wall-mounted communication outlet releaser (340) mounted on a wall are mounted together.

9. The construction method of the building oxygen supply device according to claim 7 or 8, characterized in that: The wall communication outlet releaser (340) is composed of a wall communication outlet (10) having at least one insertion portion (11), wherein the insertion portion (11) is configured to expose an accessory valve (341) of an oxygen pipe (220b) connected to the oxygen supply line (200) to the outside.

10. The construction method of the building oxygen supply device according to claim 9, characterized in that: The insertion portion (11) also has a lighting portion connected to an LED electric wire (220b) of the oxygen supply line (200).

11. The construction method of the building oxygen supply device according to claim 6, characterized in that: The oxygen supply pipeline laying step S4 includes: Considering the position where the oxygen releaser (300) and the controller (400) are separated from each other, a portion of the ceiling is opened, the opened position is selected as a branch point (500), and then a combined duct cable (240a) is prepared, connected to the oxygen generator (100) through the inside of the ceiling or the inside of the wall at the branch point (500), or all of the above, and an oxygen tube (210a) on one side connected to the oxygen storage tank of the oxygen generator (100), an LED wire (220a) on one side connected to the power supply unit of the oxygen generator (100), and a controller wire (230a) on one side connected to the control unit of the oxygen generator (100) are introduced into the combined duct cable (240a); The steps of preparing another combined conduit cable (240b), connecting it to the oxygen releaser (300) through the inside of the ceiling or the inside of the wall of the branch point (500), or both, and then introducing the other side oxygen tube (210b) and the other side LED wire (220b) connected to the oxygen releaser (300) into the other combined conduit cable (240b); The steps of preparing another combined conduit cable (240c), then selecting a point on the wall where the controller (400) will be installed and drilling a hole, then connecting the other combined conduit cable (240c) to the hole drilled from the branch point (500) through the inside of the ceiling or the inside of the wall or both, and introducing the other side controller wire (230b) connected to the controller (400) into the other combined conduit cable (240c); A step of connecting, at the branch point (500), the end of the oxygen tube (210a) on one side introduced through the one combined pipeline cable (240a) and the end of the oxygen tube (210b) on the other side introduced through the other combined pipeline cable (240b) by a confidential means; A step of connecting, at the branch point (500), the end of the LED wire (220a) on one side introduced through the one combined conduit cable (240a) and the end of the LED wire (220b) on the other side introduced through the other combined conduit cable (240b) through an insulating device; The step of connecting the end of the one side controller wire (230a) introduced through the one combined pipe cable (240a) and the end of the other side controller wire (230b) introduced through the other combined pipe cable (240c) through an insulating device; and The steps of neatly placing the interconnected oxygen tubes (210a, 210b), the LED wires (220a, 220b) and the controller wires (230a, 230b) into the opened branch point (500), and closing the opened branch point (500).

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