Oxygen-enriched supply apparatus structure

Abstract

The utility model discloses a kind of oxygen-enriched supply equipment structures, wherein, the box body of the utility model oxygen-enriched supply equipment forms a pair of window of open to the outside on one side, an air inlet filter device is provided in the window, the filter material with filterable purified air is in the air inlet filter device, the air of outside can first filter the impurities such as suspended particulate in air in filter material in air inlet filter device, only after filtering, air enters the oxygen-enriched membrane module in box body, so oxygen-enriched membrane in oxygen-enriched membrane module can reduce the loss when oxygen-enriched membrane acts to generate oxygen-enriched, and further help the generation of oxygen-enriched.

Description

Technical Field

[0001] This utility model relates to an oxygen-enriched supply device structure, and more particularly to an oxygen-enriched supply device structure that is easy to assemble and convenient to carry. Background Technology

[0002] As air pollution becomes increasingly serious, in addition to air filters, oxygen-enriching machines are gradually becoming popular on the market. These machines provide people with air containing a higher proportion of oxygen, allowing users to obtain more oxygen through natural breathing, thus improving their health.

[0003] The applicant has long been committed to the research and development and production of oxygen-enriched equipment, and has successively obtained several Taiwanese patents, such as M621054, M621054, and M621054, as well as Chinese patents No. 17508519, 17420595, and 9538083, etc. However, the applicant is not complacent and continues to work hard to improve the related technologies of oxygen-enriched equipment, striving for product perfection. In particular, the applicant has invested a lot of financial and human resources in research on small-scale oxygen-enriched equipment models; especially in the research on the assembly and portability of oxygen-enriched equipment. Utility Model Content

[0004] The technical problem solved by this utility model: This utility model relates to the structure of an oxygen-enriched supply device, which mainly overcomes the shortcomings of traditional oxygen-enriched equipment, such as difficulty in filtering outside air, difficulty in assembling and disassembling the filter device, and inconvenience in moving the oxygen-enriched equipment.

[0005] The technical means adopted in this utility model are as follows: Therefore, this utility model provides an oxygen-enriched supply device structure. The oxygen-enriched supply device structure of this utility model includes at least a housing, an intake fan module, an oxygen-enriched membrane module, a pump, an oxygen-enriched conveying component, and an exhaust fan module. The housing has an accommodating space, and one side of the housing forms an open window with an intake filter installed in the window. The intake fan module is located in the accommodating space of the housing and is mainly used to draw in outside air into the housing. The oxygen-enriched membrane module is composed of multiple oxygen-enriched membranes and is mainly used to increase the oxygen content of air after it passes through it. The pump is connected to the oxygen-enriched membrane module to draw air into the oxygen-enriched membrane module for oxygen generation and to transport the generated oxygen externally. The oxygen-enriched conveying component guides the oxygen output. The exhaust fan module is used to expel heat energy from the equipment.

[0006] The technical effects of this utility model.

[0007] With the above-described design structure, this utility model allows outside air to first enter the air intake filter device. The filter material of the air intake filter device filters out impurities in the air before it enters the oxygen-enriching membrane module. This ensures that the air entering the oxygen-enriching membrane module has been filtered first, thus improving its cleanliness. This effectively reduces the loss of the oxygen-enriching membrane in the oxygen-enriching membrane module and helps to generate oxygen. Furthermore, a magnet is provided on one side of the air intake filter device. This magnet can be used to attach to any magnetically attracted metal material inside the box, making the air intake filter device easier to assemble and disassemble. Attached Figure Description

[0008] Figure 1 is a perspective view of this utility model.

[0009] Figure 2 is an exploded view of this utility model.

[0010] Figure 3 is a cross-sectional view of this utility model.

[0011] Figure 4 is an exploded view of the air intake filter device in this utility model.

[0012] Figures 5, 6, and 7 are embodiments of this utility model.

[0013] Symbol explanation: 1: Box body 11: Window 12: Air intake filter 121: Breathable zone; 122: Filter material 123: Magnet 124: Protrusion 13: Handle 131: Base body; 132: Hole / groove 14: Breathable area 15: Iron frame 2: Intake fan module 3: Oxygen-enriched membrane module 31: Vent section 4: Pump 41: Air intake section 42: Air exhaust section 12 5: Oxygen-enriched conveyor components 51: Oxygen-enriched input terminal; 52: Oxygen-enriched output terminal 6: Exhaust fan module 7: Power switch 8: Air duct 9: Water collector. Detailed Implementation

[0014] First, please see Figure 1 , Figure 2 , Figure 3As shown, this utility model relates to the structure of an oxygen-enriched supply device, which includes at least: a box body 1, an air intake fan module 2, an oxygen-enriched membrane module 3, a pump 4, an oxygen-enriched conveying component 5, and an air outlet fan module 6. The box body 1 has an accommodating space, and one side of the box body 1 forms an open window 11. An air intake filter 12 is located within this window 11. (Please refer to the following for further details.) Figure 4 As shown, the air intake filter device 12 has a permeable area 121 formed by a number of holes penetrating the body. The air intake filter device 12 has a filter material 122 for filtering and purifying air on one side. At least one magnet 123 is provided on one side of the air intake filter device 12. Preferably, the magnets 123 are arranged in two corresponding positions. Furthermore, the air intake filter device 12 may be further provided with a protrusion 124 on the outside.

[0015] In addition, a handle 13 is provided on the upper side of the box body 1. In practice, the handle 13 extends into a body 131. The body 131 has a slot 132, and the slot 132 is open and faces upward. A ventilation area 14 with a plurality of holes is formed at the bottom of the box body 1.

[0016] The intake fan module 2 is located in the accommodating space of the housing 1 and is mainly used to draw in the outside space into the housing 1. In practice, the intake fan module 2 corresponds to the position of the intake filter device 12.

[0017] The oxygen-enriched membrane module 3 is composed of a plurality of oxygen-enriched membranes (not shown in the figure). The oxygen-enriched membrane module 3 is mainly used to increase the oxygen content of air after it has been processed. However, the oxygen-enriched membrane module 3 is a fairly mature product and is not part of the patent claim in this case. Therefore, it will not be described in detail later. One end of the oxygen-enriched membrane module 3 is connected to the intake fan module 2, and the other end of the oxygen-enriched membrane module 3 has an air outlet 31, which can be used for outputting the oxygen enriched by the process.

[0018] The pump 4 has an air inlet 41 and an air outlet 42. The air inlet 41 is used to connect to the air outlet 31 of the oxygen-enriched membrane module 3.

[0019] The oxygen-enriched conveyor 5 is used to guide the output of oxygen. The oxygen-enriched conveyor 5 has an oxygen-enriched input end 51 and an oxygen-enriched output end 52. In practice, the oxygen-enriched output end 52 is located on the upper side of the box body 1. Preferably, the oxygen-enriched output end 52 is located on the seat 131 of the handle 13 on the upper side of the box body 1.

[0020] The exhaust fan module 6 is used to discharge the heat generated after the pump 4 operates. The exhaust fan module 6 corresponds to the ventilation area 14 at the bottom of the box 1, and the exhaust direction of the exhaust fan module 6 is towards the ventilation area 14 at the bottom of the box 1.

[0021] The power switch 7 is used to control whether the intake fan module 2, pump 4 and exhaust fan module 6 are powered. The power switch 7 is located on the upper side of the housing 1, so that personnel can easily operate the power switch 7. Preferably, the power switch 7 is located in the base 131 on the upper side of the housing 1, so that the power switch 7 forms an integral part of the product with the housing 1 by being located in the base 131.

[0022] Please refer to Figure 5. When this utility model is applied, the intake fan module 2 and pump 4 can be started after operating the power switch 7. When the outside air is about to enter the oxygen-enriched membrane module 3 through the intake fan module 2, the outside air will first pass through the air permeable area 121 of the intake filter device 12 and then enter the filter material 122. The filter material 122 filters impurities such as suspended particles in the air, improving the cleanliness of the air. Then the filtered air enters the oxygen-enriched membrane module 3 through the intake fan module 2. This can ensure the quality of the air entering the oxygen-enriched membrane module 3, thereby reducing the loss of the oxygen-enriched membrane in the oxygen-enriched membrane module 3 and helping to generate oxygen. Following the above, the oxygen generated by the oxygen-enriched membrane module 3 is then transported through several air ducts 8 via the air outlet 31, the air inlet 41 of the pump 4, the air outlet 42 of the pump 4, the oxygen input terminal 51 of the oxygen-enriched conveying component 5, and finally output to the outside via the oxygen output terminal 52 of the oxygen-enriched conveying component 5. The air inlet fan module 2 and the pump 4 draw outside air into the oxygen-enriched membrane module 3, which then processes the air into an oxygen-enriched gas. Furthermore, through circuit design, the power switch 7 can synchronously start the air outlet fan module 6, the air inlet fan module 2, and the pump 4. The air outlet fan module 6 can dissipate the heat generated by the pump 4, thereby reducing the high temperature inside the housing 1 and preventing the components inside the housing 1 from having their lifespan shortened due to prolonged exposure to high temperatures. In this way, the basic requirements of an oxygen-enriched supply device are met.

[0023] The air intake filter 12, which uses filter material 122 for purifying air, can be replaced as needed to maintain its filtration effect. Figure 6 As shown, the air intake filter 12 can be attracted to any magnetic metal material inside the housing 1 by means of the magnet 123, such as the iron frame 15 used to support / fix the air intake fan module 2 and the oxygen enrichment membrane module 3. This allows the air intake filter 12 to be easily fixed in the housing 1. On the other hand, the magnet 123 of the air intake filter 12 also allows the air intake filter 12 to be easily removed from the housing 1. Furthermore, the air intake filter 12 has a protrusion 124 on the outside, which the operator can hold by the protrusion 124, making it more convenient for the assembly and disassembly of the air intake filter 12.

[0024] Also, such as Figure 7As shown, to achieve better application results, the oxygen-enriched material output from the oxygen-enriched conveyor 5's output end 52 can be further processed by a water collector 9. Through the water collection function of the water collector 9, excessive moisture in the oxygen-enriched material can be removed, making it more comfortable for subsequent users. The water collector 9 is a common item on the market and is not the main patent claim of this utility model, so it will not be described in detail. In practice, the water collector 9 can be vertically embedded in the slot 132 on the upper side of the box 1. Preferably, the depth and inner diameter of the slot 132 are matched with the length and outer diameter of the water collector 9 so that the water collector 9 can be well fixed after being embedded in the slot 132, so that the water collector 9 will not easily tip over and ensure its proper water collection effect.

Claims

1. An oxygen-enriched supply device structure, comprising at least: The box body has an accommodating space, and one side of the box body forms an open window. The accommodating space houses an intake fan module, an oxygen-enriching membrane module, a pump, an oxygen-enriching delivery component, and an exhaust fan module. Its distinguishing feature is that... The box has a handle on the upper side, and the handle extends into a body.

2. The structure of the oxygen-enriched supply equipment as described in claim 1, characterized in that, The seat has a slot, and the slot is open and faces upward.

3. The structure of the oxygen-enriched supply equipment as described in claim 1, characterized in that, The base is equipped with a power switch.

4. The structure of the oxygen-enriched supply equipment as described in claim 1, characterized in that, The bottom of the box has a ventilation area with multiple through holes.

5. The structure of the oxygen-enriched supply equipment as described in claim 4, characterized in that, This ventilation area corresponds to the location of the exhaust fan module.

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