CN222889254U - Atomizer cup synergistic joint - Google Patents

Abstract

The utility model discloses an atomizing cup synergistic joint, which is connected between an outlet of a traditional atomizing cup body and a suction nozzle, and forms a new connection structure with the traditional atomizing cup, so that atomized gas of the traditional atomizing cup passes through an interface device of the synergistic joint and then passes through a flow guiding device to suck the atomized gas into the suction nozzle. The interface device has the advantages that the first single-direction gas guide mechanism can only suck out the function of incapable reverse inflow, so that invalid gas can be prevented from flowing into the atomizing cup, the phenomenon of squeezing away the valid gas is prevented, the invalid gas passes through the embedding device, the second single-direction gas guide mechanism in the embedding device can only exhale the function of incapable reverse inhalation, and the total amount of the valid gas inhaled by a user can be greatly improved, so that the atomization curative effect is enhanced.

Description

Atomizing cup synergy joint

Technical Field

The utility model belongs to the technical field of medical appliances, and particularly relates to an atomizing cup joint.

Background

An atomizer cup, also known as an oscillator or atomizer head, is a critical component of an atomizer. The atomizer is mainly used in the medical industry, especially for treating respiratory diseases such as asthma, pneumonia, chronic obstructive pulmonary disease, etc. The main function of the atomizing cup is to convert the drug solution into tiny atomized particles, so that the atomized particles can be directly inhaled into the lung.

The atomizing cup mainly comprises a cup body and a suction nozzle, and in the using process, the liquid medicine can be poured into the cup body and then the atomizing sheet is vibrated by ultrasonic waves to generate tiny atomized particles. These particles pass through the mouthpiece and enter the lungs with respiration, allowing the drug to act directly on the lungs. However, this direct absorption of the atomized particles through the nozzle is not effective and the atomization efficiency is low.

Research has found that the reason for the inefficiency of atomization is that the user is able to inhale the atomizing gas from the atomizing cup normally during inhalation. However, when the nose is used for breathing out, the person can hardly inhale the nose and breathe out the invalid gas for a long time, and the invalid gas enters the atomizing cup and extrudes a large amount of effective gas, so that the total inhalation amount of the effective gas is reduced, and the atomization efficiency is low.

Disclosure of utility model

In view of the technical problems, the present disclosure provides an atomizing cup synergistic joint, which makes expired invalid gas unable to flow into an atomizing cup by adopting an inspiration and expiration dual-channel mode, thereby solving the problem of low atomizing efficiency.

In order to achieve the above purpose, the present utility model adopts the following technical scheme:

The utility model provides an atomizing cup synergistic connects, includes guiding device, be provided with interface arrangement and embedded device in the guiding device, interface arrangement, embedded device can dismantle with guiding device respectively and be connected, be provided with first single air guide mechanism in the interface arrangement, be provided with second single air guide mechanism in the embedded device.

Specifically, the flow guiding device comprises an air suction channel, an interface cavity, an embedded cavity and an air outlet, wherein the interface cavity is communicated with the air suction channel, and the embedded cavity is communicated with the air outlet.

Further, the interface device also comprises an air inlet channel, and the first one-way air guide mechanism is arranged in the air inlet channel.

Further, the first unidirectional air guide mechanism comprises a first air guide hole and a first baffle block, wherein the first air guide hole is connected with the first baffle block in an adaptive manner, and the height of the first baffle block is larger than the depth of the first air guide hole.

Further, the first baffle block is a first round table with the upper diameter larger than the lower diameter, and the inclination angle of the first round table is the same as that of the first air guide hole.

Further, a cylinder with the diameter larger than that of the upper part of the first round table is arranged above the first round table.

Further, the embedding device is composed of an exhaust channel and a second one-way air guide mechanism, and the second one-way air guide mechanism is arranged in the exhaust channel.

Further, the second unidirectional air guide mechanism comprises a second air guide hole and a second baffle block, wherein the second air guide hole is connected with the second baffle block in an adaptive manner, and the height of the second baffle block is larger than the depth of the second air guide hole. Further, the second baffle block is a second round table with the upper diameter larger than the lower diameter, and the inclination angle of the second round table is the same as that of the second air guide hole.

The atomizing cup synergistic joint has the beneficial effects that the atomizing cup synergistic joint is connected between the outlet of the traditional atomizing cup body and the suction nozzle, and forms a new connection structure with the traditional atomizing cup, so that the total amount of effective gas inhaled by a user can be greatly increased without intentional mouth inhalation or nose inhalation in the use process, the expired ineffective gas is prevented from entering the atomizing cup and a large amount of effective gas is squeezed away, the atomizing curative effect is enhanced, and meanwhile, the atomizing cup synergistic joint is connected with the traditional atomizing cup simply and is quite convenient to disassemble and wash.

Drawings

FIG. 1 is an assembly drawing of an atomizing cup synergistic joint

FIG. 2 is an exploded view of a cross section of an enhanced joint of an atomizing cup

FIG. 3 is an assembly view of the synergistic joint of the atomizing cup in section

The figure shows 1-flow guiding device, 11-suction channel, 12-interface cavity, 13-embedded cavity, 14-exhaust port, 2-interface device, 21-air inlet channel, 22-first air guiding hole, 23-first baffle block, 3-embedded device, 31-exhaust channel, 32-second air guiding hole and 33-second baffle block

Detailed Description

The present utility model will be described in further detail with reference to the accompanying drawings. The detailed description, while indicating exemplary embodiments of the utility model, includes various details of the embodiments of the utility model for the purpose of illustration only, should be considered as exemplary. Accordingly, those skilled in the art will recognize that various changes and modifications of the embodiments described herein can be made without departing from the scope and spirit of the utility model. Also, descriptions of well-known functions and constructions are omitted in the following description for clarity and conciseness.

Examples

As shown in fig. 1 and 2, this embodiment provides an atomizing cup synergistic joint, including guiding device 1, be provided with interface arrangement 2 and embedded device 3 in the guiding device 1, interface arrangement 2, embedded device 3 can dismantle with guiding device 1 respectively and be connected, be provided with first one-way air guide mechanism in the interface arrangement 2, be provided with second one-way air guide mechanism in the embedded device 3. The atomizing cup synergy joint is connected between the outlet of the traditional atomizing cup body and the suction nozzle, a new connecting structure is formed with the traditional atomizing cup, the interface device 2 is connected with the outlet of the traditional atomizing cup, so that atomized gas of the traditional atomizing cup passes through the interface device 2 of the synergy joint and then passes through the flow guiding device 1, and the atomized gas is sucked into the nozzle. The first unidirectional air guide mechanism of the interface device 2 can only suck out the function that can not reversely flow in, so that invalid air can be prevented from flowing into the atomizing cup, the phenomenon of squeezing away valid air can be prevented, the expired invalid air is discharged through the embedded device 3 and then through the flow guiding device 1, and the second unidirectional air guide mechanism of the embedded device 3 can only exhale the function that can not reversely inhale, therefore, the expired invalid air can not flow into the atomizing cup in a dual-channel way of inspiration and expiration, the total amount of valid air inhalation can be promoted to the maximum extent, and the atomization efficiency is improved. After the atomizing cup synergistic joint is used, the atomizing cup synergistic joint can be detached and cleaned at any time, so that the atomizing cup synergistic joint is very convenient.

As shown in fig. 3, specifically, the flow guiding device 1 includes an air suction channel 11, a joint cavity 12, an embedded cavity 13, and an air outlet 14, wherein the joint cavity 12 is communicated with the air suction channel 11, and the embedded cavity 13 is communicated with the air outlet 14. The atomized gas passes through the interface device 2 in the interface cavity 12 and then passes through the air suction channel 11 of the flow guiding device 1, so that the atomized gas is sucked into the nozzle. While exhaled inactive gas is exhausted through the insert device 3, which is inserted in the cavity 13, through the exhaust port 14. Since the air-suction channel 11 and the air-exhaust port 14 are arranged in the air-guide device 1, and the air-suction channel 11 and the air-exhaust port 14 are not communicated with each other, the atomized gas can be better sucked into the nozzle, and the ineffective gas can be discharged to the outside, so that the ineffective gas can not enter the atomized cup.

As shown in fig. 2 and 3, in particular, the interface device 2 further includes an air intake passage 21, and the first unidirectional air guide mechanism is disposed in the air intake passage 21. The air inlet passage 21 is used for connecting with the outlet of the conventional atomizer, and the first unidirectional air guide mechanism is to enable the atomized air to flow into the air suction passage 11, and prevent the ineffective air from flowing back into the atomizing cup, thereby influencing the atomization effect.

In at least one embodiment, the first unidirectional air guide mechanism comprises a first air guide hole 22 and a first baffle block 23, wherein the first air guide hole 22 is in fit connection with the first baffle block 23, and the height of the first baffle block 23 is larger than the depth of the first air guide hole 22. Through the first air vent 22 and the first baffle block 23 mutually matched, when not in use, the first baffle block 23 can be highly attached to the first air vent 22, according to the physical principle that the faster the air flow speed is, the lower the pressure is, when in inhalation, the first baffle block 23 can temporarily leave the first air vent 22 to form an atomized air channel, so that atomized air enters the mouth through the inhalation channel 11 of the flow guiding device 1 again, when in exhalation, the first air vent 22 and the first baffle block 23 can be tightly connected, so that the expired invalid air is prevented from flowing back into the atomized cup, and the atomization effect is affected. The first baffle block 23 is higher than the first air guide hole 22 in depth, so that the first baffle block 23 can be effectively prevented from being separated, and the first baffle block 23 can be attached to the first air guide hole 22 in height again after air suction.

In at least one embodiment, the first baffle block is a first round table with an upper diameter larger than a lower diameter, and the inclination angle of the first round table is the same as that of the first air guide hole. When in suction, the first round table can be lifted up under the action of air flow, and an atomized gas channel can be easily formed with the first air guide hole 22, so that atomized gas can enter the mouth through the suction channel 11 of the flow guiding device 1. When exhaling, the first round platform and the first air guide holes 22 can play a better sealing role, so that invalid air is better prevented from flowing back to the atomizing cup, and atomizing efficiency is improved. In addition, in order to enable the first round table to be lifted up more easily during air suction, the first round table can be made into a hollow round table which is sealed up and down.

In at least one embodiment, in order to better prevent expired inactive gas from entering the atomizing cup, a cylinder having a diameter greater than the diameter above the first circular table is disposed above the first circular table.

As shown in fig. 3, the embedding device 3 is composed of an exhaust passage 31 and a second one-way air guiding mechanism, and the second one-way air guiding mechanism is arranged in the exhaust passage 31. The exhaust passage 31 is used to communicate with the exhaust port 14, and the second one-way gas guide mechanism is to discharge the ineffective gas through the exhaust port 14 while preventing the ineffective gas from being sucked into the nozzle at the time of inhalation, thereby improving the atomization efficiency.

In at least one embodiment, the second unidirectional air guide mechanism comprises a second air guide hole 32 and a second baffle plate 33, the second air guide hole 32 is connected with the second baffle plate 33 in a fit way, and the height of the second baffle plate 33 is larger than the depth of the second air guide hole 32. Through the second air vent 32 and the second baffle block 33 mutually support, when not using, first baffle block 23 can highly laminate first air vent 22, according to the physical principle that the faster the gas velocity of flow, the lower the pressure, when inhaling, second air vent 32 and the second baffle block 33 can zonulae occludens to prevent in the invalid gas suction nozzle, thereby improve atomization efficiency. When the user exhales, the second baffle block 33 can be lifted up under the action of the air flow, and an ineffective air channel can be formed with the second air guide hole 22 easily, so that ineffective air is discharged out from the air outlet 14 through the air outlet channel 31, the second baffle block 33 is higher than the second air guide hole 32 in depth, the second baffle block 33 can be effectively prevented from being separated, and the second baffle block 33 can be highly attached to the second air guide hole 32 after the user exhales.

In at least one embodiment, the second baffle block is a second round table with an upper diameter larger than a lower diameter, and the inclination angle of the second round table is the same as that of the second air guide hole. When inhaling, round platform and second air vent 32 can play better sealed effect to in the better prevention invalid gas suction nozzle, thereby improve atomization efficiency. When exhaling, the second round table can be lifted up under the action of the air flow, and an ineffective air channel can be easily formed with the second air guide holes 22, so that the ineffective air is discharged out through the air discharge channel 31 and the air discharge port 14.

Finally, it should be noted that the above description is only of the preferred embodiments of the present utility model and is not intended to limit the scope of the present utility model. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present utility model should be included in the protection scope of the present utility model.

Claims (9)

1. An atomizer cup enhancement joint, characterized in that it comprises a flow guide device (1), wherein an interface device (2) and an embedding device (3) are arranged in the flow guide device (1), wherein the interface device (2) and the embedding device (3) are respectively detachably connected to the flow guide device (1), wherein a first one-way air guide mechanism is arranged in the interface device (2), and wherein a second one-way air guide mechanism is arranged in the embedding device (3). 2. The atomizer cup enhancement connector according to claim 1 is characterized in that the flow guide device (1) comprises an air intake channel (11), an interface cavity (12), an embedded cavity (13) and an exhaust port (14), wherein the interface cavity (12) is connected to the air intake channel (11); and the embedded cavity (13) is connected to the exhaust port (14). 3. The atomizer cup enhancement connector according to claim 1, characterized in that the interface device (2) further comprises an air inlet channel (21), and the first one-way air guide mechanism is disposed in the air inlet channel (21). 4. The atomizer cup enhancement joint according to claim 3 is characterized in that the first one-way air guide mechanism comprises a first air guide hole (22) and a first baffle block (23), the first air guide hole (22) and the first baffle block (23) are adaptively connected and the height of the first baffle block (23) is greater than the depth of the first air guide hole (22). 5. The atomizer cup enhancement joint according to claim 4, characterized in that the first baffle block (23) is a first truncated cone with an upper diameter greater than a lower diameter, and the first truncated cone and the first air guide hole (22) have the same inclination angle. 6 . The atomizer cup enhancement joint according to claim 5 , wherein a cylinder having a diameter larger than a diameter above the first truncated cone is disposed above the first truncated cone. 7. The atomizer cup enhancement joint according to claim 1, characterized in that the embedding device consists of an exhaust channel (31) and a second one-way air guide mechanism, and the second one-way air guide mechanism is placed in the exhaust channel. 8. The atomizer cup enhancement joint according to claim 7, characterized in that the second one-way air guide mechanism comprises a second air guide hole (32) and a second baffle block (33), the second air guide hole (32) and the second baffle block (33) are adaptively connected and the height of the second baffle block (33) is greater than the depth of the second air guide hole (32). 9. The atomizer cup enhancement joint according to claim 8, characterized in that the second blocking block (33) is a second truncated cone with an upper diameter greater than a lower diameter, and the second truncated cone and the second air guide hole (32) have the same inclination angle.