阅读说明：本技术 漩涡产生装置 (Vortex generating device ) 是由 藤井智步 江村知惠 今井洋辅 于 2019-10-11 设计创作，主要内容包括：一种漩涡产生装置(10),包括挤出机构(16),所述挤出机构将气体挤出,以将壳体(11)的气体通路(13)的气体从释放口(14)呈漩涡状释放,当将挤出体积设为V(m～3),将释放口(14)的直径设为D(m),将直径为D且体积为V的圆柱的长度设为L(m),将吹出流速设为U(m/s)时,构成为满足下述关系：0.045≤D≤0.135,0.15≤L≤0.35,3≤U≤5。(A vortex generating device (10) comprises an extruding mechanism (16) which extrudes gas to discharge the gas in a vortex shape from a discharge port (14) of a gas passage (13) of a housing (11), and when the extruding volume is set to be V (m) 3 ) When the diameter of the discharge port (14) is D (m), the length of a cylinder having a diameter D and a volume V is L (m), and the blowing flow rate is U (m/s), the following relationship is satisfied: d is more than or equal to 0.045 and less than or equal to 0.135, L is more than or equal to 0.15 and less than or equal to 0.35, and U is more than or equal to 3 and less than or equal to 5.)

1. A vortex generating device comprising:

a housing (11) having a gas passage (13) and a release port (14) formed therein; and

an extruding mechanism (16) that extrudes the gas in the gas passage (13) to discharge the gas in the gas passage (13) from the discharge port (14) in a swirl shape,

it is characterized in that the preparation method is characterized in that,

when the extrusion volume is set to V (m)³) When the diameter of the discharge port (14) is D (m), the length of a cylinder having a diameter D and a volume V is L (m), and the blowing flow rate is U (m/s), the following relationship is satisfied:

0.045≤D≤0.135

0.15≤L≤0.35

3≤U≤5。

2. the vortex generating apparatus of claim 1,

the housing (11) is provided on a ceiling (C) of a target space (S) where the swirling gas is discharged, and satisfies the following relationship:

0.045≤D≤0.075。

3. the vortex generating apparatus of claim 1,

the housing (11) is provided on a wall (W) of a target space (S) for releasing a swirl-shaped gas, and satisfies the following relationship:

0.045≤D≤0.060。

4. the vortex generating apparatus of any of claims 1 to 3,

the extrusion mechanism (16) includes a plurality of vibrating plates (18) that change the volume of the gas passage (13) and extrude the gas in the gas passage (13) when the volume is reduced.

Technical Field

The present disclosure relates to a vortex generating device.

Background

Patent document 1 discloses an apparatus that generates a vortex and supplies a predetermined region with, for example, a fragrance component contained in the vortex. The device of patent document 1 is configured to generate a vortex and a direct current that travels through the inside of the vortex.

Documents of the prior art

Patent document

Patent document 1: japanese patent laid-open No. 2008-018394

Disclosure of Invention

Technical problem to be solved by the invention

In the structure of patent document 1, since the direct current is generated in the vortex, it is difficult to generate a stable vortex, and even if the vortex is generated, the vortex travels together with the direct current, so that the vortex is easily disappeared, the reaching distance is shortened, and the fragrance component is dispersed even when the fragrance component is included in the vortex.

An object of the present disclosure is to increase a reach distance and generate a stable vortex in a vortex generating device.

Technical scheme for solving technical problem

A first aspect of the present disclosure is premised on a vortex generating apparatus including: a housing 11 having a gas passage 13 and a discharge port 14 formed therein; and an extruding mechanism 16 that extrudes the gas in the gas passage 13 to discharge the gas in the gas passage 13 from the discharge port 14 in a swirl shape.

The vortex generating device is characterized in that the extrusion volume is set as V (m)³) When the diameter of the discharge port (14) is D (m), the length of a cylinder having a diameter D and a volume V is L (m), and the blowing flow rate is U (m/s), the following relationship is satisfied:

0.045≤D≤0.135

0.15≤L≤0.35

3≤U≤5。

in the first mode, the diameter D of the discharge port 14 is set to 0.045 D.ltoreq.0.135, the length L of a cylinder having a diameter D and a volume V (cylinder corresponding length) is set to 0.15 L.ltoreq.0.35, and the blowing flow rate U is set to 3 U.ltoreq.5, so that the vortex generated in the vicinity of the outer periphery of the discharge port 14 is stable, the straight flow is not easily generated, and the stable vortex can be generated. As a result, the vortex will travel stably to an arrival distance A of about 1.5 ≦ A ≦ 5 m. Since the flow velocity of the released vortex is fast, stimulation can be applied to a person by the vortex. When the vortex is made to contain a fragrance composition, the fragrance composition can be delivered to a person located at about 5 m.

The second aspect of the present disclosure is, in addition to the first aspect,

the housing 11 is provided on a ceiling C of a target space S where a swirl gas is discharged, and satisfies the following relationship:

0.045≤D≤0.075。

in the second embodiment, the vortex can be supplied from the vortex generating device in which the housing 11 is attached to the ceiling C to a person positioned at, for example, the lower left and right of 1.5m to 2.5 m. For example, it is possible to include a fragrance component in the vortex and supply the fragrance component to a person who is sleeping.

A third aspect of the present disclosure is, in addition to the first aspect,

the housing 11 is provided on a wall W of a target space S where a swirl gas is discharged, and satisfies the following relationship:

0.045≤D≤0.060。

in the third embodiment, the vortex can be supplied from the vortex generating device in which the housing 11 is attached to the wall W toward a person located at a distance of, for example, about 1.5 to 2.5m from the wall W.

A fourth aspect of the present disclosure is characterized in that, in addition to any one of the first to third aspects,

the extrusion mechanism (16) includes a plurality of vibrating plates (18) that change the volume of the gas passage (13) and extrude the gas in the gas passage (13) when the volume is reduced.

In the fourth embodiment, by using the plurality of vibration plates 18, the blowing flow rate obtained by reducing the volume of the gas passage 13 can be increased. Therefore, a stable vortex having a long reaching distance a is more easily generated than in the case of one vibration plate 18.

Drawings

Fig. 1 is a schematic device layout diagram of a room in which a vortex generating device is installed in the embodiment.

Fig. 2 is a perspective view of the room of fig. 1 viewed from another direction.

Fig. 3 is a perspective view of the airflow generation unit.

Fig. 4 is a longitudinal sectional view of the vortex generating device.

Figure 5 is a cross-sectional view of a vortex generating device.

Fig. 6 is a perspective view showing a cylinder having an extrusion volume V and a discharge port diameter D.

Detailed Description

Embodiments of the present disclosure are described below with reference to the drawings. The following embodiments are merely preferable examples in nature, and are not intended to limit the scope of the present invention, its applications, or its uses.

The vortex generating device 10 of the present embodiment is configured to supply a vortex containing a fragrance component to, for example, a sleeper T. In fig. 1 and 2, a sleeper T sleeps on bedding B such as a bed in an indoor space S of a room as a target space. An air flow generating unit 30 and an air conditioning device 40 are provided in the indoor space S, and the air flow generating unit 30 is formed by integrally forming the vortex generating device 10 and the lighting device 20. A controller 50 is connected to the airflow generating unit 30.

The air conditioner 40 performs air conditioning of the indoor space S. The air conditioner 40 includes, for example, a wall-mounted indoor unit 41 mounted on a wall W. The indoor unit 41 is connected to an outdoor unit, not shown, by a refrigerant pipe. The air conditioner 40 cools or heats indoor air by a refrigerant that performs a refrigeration cycle. Thereby regulating the temperature of the air of the indoor space S. The air conditioner 40 may be an air conditioner capable of adjusting the temperature of the indoor air in addition to the temperature of the indoor air.

As shown in fig. 1 and 3, the airflow generation unit 30 includes a fixing plate 31, the vortex generation device 10, and the illumination device 20, and is formed by unitizing them. The fixing plate 31 is formed in a horizontal flat plate shape, and is provided on the back surface of the ceiling C, for example. The lighting device 20 includes a lighting body 21 and a cover 22, and the cover 22 is detachably attached to a lower portion of the lighting body 21. The lighting body 21 includes a light source such as an LED and a circuit board on which a light control circuit (not shown) for adjusting light from the light source is mounted. The cover 22 is made of a translucent resin material and is exposed to the indoor space S.

As shown in fig. 4, the vortex generating device 10 includes: a cylindrical case 11 having an open lower side; and a lower cover 12 for closing an open surface of a lower side of the housing 11. An air passage (air passage) 33 is formed inside the housing 11. A release port 14 communicating with the air passage 13 is formed at the lower cover 12. The release port 14 opens toward the indoor space S. The discharge port 14 is directed downward toward the sleeper T. Since the fixing plate 31 is provided on the ceiling C, the casing 11 of the vortex generating device 10 is also provided on the ceiling C of the room forming the indoor space S in which the vortex-like air is discharged.

The swirl generating device 10 is provided with a component supply device 15. The component supply device 15 supplies a predetermined discharge component such as a fragrance applied to the swirl R to the air passage 13 inside the housing 11. Although not shown, the component supply device 15 includes: a component generating section for generating a release component; and a delivery device for delivering the released ingredient generated by the ingredient-generating portion. The component generating section employs, for example, a method of vaporizing the released component from the component material. The delivery device is constituted by an air pump, for example. The component supply device 15 appropriately supplies the released component adjusted to a predetermined concentration to the air passage 13.

A plurality of extrusion mechanisms 16 are provided inside the housing 11. The extruding means 16 extrudes the air in the air passage 13 to discharge the air in the air passage 13 from the discharge port 114 in a swirl shape. As shown in the cross section of the vortex generating device 10 in fig. 4, eight extrusion mechanisms 16 are provided in the vortex generating device 10. Each extrusion mechanism 16 has: a linear actuator 17 as a driving section; and a vibration plate 18 driven by the linear actuator 17. The linear actuator 17 displaces the vibration plate 18 forward and backward (in a direction perpendicular to the surface of the vibration plate 18). In the present embodiment, the plurality of extruding mechanisms 16 are arranged along the peripheral wall of the housing 11. The plurality of extrusion mechanisms 16 are arranged at equal intervals in the circumferential direction. In this way, the extruding mechanism 16 includes a plurality of vibrating plates 18, and the plurality of vibrating plates 18 change the volume of the air passage 13 and extrude the gas in the air passage 13 when the volume is reduced.

As shown in fig. 4, the vortex generating device 10 includes a drive control section 19 for controlling the extrusion mechanism 16. The drive control unit 19 includes a circuit board connected to the linear actuator 17. The drive control unit 19 is disposed outside the housing 11, for example, but may be disposed inside the housing 11. The drive control unit 19 is configured to adjust the amplitude of the vibration of the vibrating plate 18 and the period of the amplitude.

The controller 50 is configured by a microcomputer and a storage device (specifically, a semiconductor memory) that stores software for operating the microcomputer. The controller 50 is connected to the vortex generating device 10 by wire or wirelessly, and controls the vortex generating device 10. The controller 50 may also be connected to the lighting device 20 and the air conditioning device 40 and also control these devices.

The controller 50 may be provided in the airflow generation unit 30, or may be separate from the airflow generation unit 30. For example, when the controller 50 is configured to perform air conditioning control, it may be provided in a control unit or a remote controller of the air conditioner 40, or in a server connected to a local area network or the internet, or in various communication terminals (a mobile terminal, a personal computer, or the like).

In the present embodiment, the extrusion volume (internal volume of the air passage 13) shown in fig. 4 is assumed to be V (m)³) When the diameter of the discharge port 14 shown in fig. 5 is D (m), a cylinder having a diameter D and a volume V is assumed as shown in fig. 6, the length (cylinder corresponding length) thereof is l (m), and the blowing flow rate is U (m/s), these values are set so as to satisfy the following relationship: d is more than or equal to 0.045 and less than or equal to 0.135, L is more than or equal to 0.15 and less than or equal to 0.35, and U is more than or equal to 3 and less than or equal to 5.

When the airflow generation unit 30 including the vortex generation device 10 is provided on the ceiling C, the diameter D of the discharge opening 14 preferably satisfies a relationship of 0.045D 0.075. When the vortex is arranged on the ceiling, the reaching distance A of the vortex is more than or equal to 1.5m and less than or equal to 2.5 m. This is because 0.045. ltoreq.D.ltoreq.0.075 is an appropriate range for the arrival distance A. The range of U, L is the same as described above.

-operation actions-

The operation of the vortex generator 10 will be described.

When the vortex generating device 10 is operated, the vibration plate 18 of each extrusion mechanism 16 is driven by the linear actuator 17. When each vibration plate 18 vibrates forward and backward, the air containing the fragrance component is pushed out toward the release port 14 as the volume of the air passage 13 decreases. The flow rate of air through the discharge port 14 is relatively large, as opposed to the ambient air being stationary. Therefore, a shear force acts on the air on the discontinuous surfaces of the air, and a vortex is generated in the vicinity of the outer peripheral edge of the discharge port 14.

The swirl forms an air flow (swirl R) that travels downward from the discharge port 14. The vortices R are schematically illustrated in fig. 1, 2, 4. The swirl R discharged from the discharge port 14 flows downward toward the sleeper T, and the fragrance component is contained in the swirl R, and therefore, the fragrance component is delivered to the sleeper T. By means of the fragrance composition, the sleeper can be made to experience, for example, a relaxing effect.

Effects of embodiment 1

In the conventional vortex generating device, a direct current is generated inside the vortex, and therefore, it is difficult to generate a stable vortex. Further, in the conventional vortex generating device, since the vortex travels together with the direct current even if the vortex is generated, the vortex is easily disappeared and the reaching distance becomes short, and when the vortex contains the fragrance component, the fragrance component is dispersed and hardly transferred to the bedridden person.

Extrusion volume V (m) of vortex generating device of the present embodiment³) The diameter D (m) of the discharge port (14), the cylinder corresponding length L (m), and the blowing flow rate U (m/s) satisfy the following relationships, respectively: d is more than or equal to 0.045 and less than or equal to 0.135, L is more than or equal to 0.15 and less than or equal to 0.35, and U is more than or equal to 3 and less than or equal to 5.

Here, when D is less than 0.045m (45mm), the diameter of the generated vortex becomes too small, and it becomes difficult to increase the reaching distance while maintaining the form of the vortex. When D is larger than 0.135m (135mm), the diameter of the generated vortex becomes too large, the vortex is easily diffused, and it is difficult to increase the reaching distance.

When L is less than 0.15m (150mm) or U is less than 3m/s, the extrusion length is too short or the blowing flow rate is too slow, and the generation of a vortex in the vicinity of the outer peripheral edge of the discharge port 14 is insufficient, and it is difficult to generate a stable vortex. When L is larger than 0.35m (350mm) or U is larger than 5m/s, the extrusion length is too long or the blowing flow rate is too high, and the vortex generated in the vicinity of the outer peripheral edge of the discharge port 14 is disturbed, so that it is difficult to generate a stable vortex.

In the present embodiment, since the diameter D of the discharge port 14, the length L of the cylinder having the diameter D and the volume V (cylinder corresponding length), and the blowing flow velocity U are set to the above ranges, the vortex generated in the vicinity of the outer peripheral edge portion of the discharge port 14 is stable, and the straight flow is less likely to be generated, so that the stable vortex can be generated. As a result, the reaching distance A of the vortex is about 1.5. ltoreq. A.ltoreq.5 m. In the vortex generating device of the present embodiment, since the fragrance component is contained in the vortex, the fragrance component can be easily delivered to the person lying under the vortex generating device 10. In addition, since the flow velocity of the released vortex is fast, stimulation can be applied to a person by the vortex.

In addition, when the airflow generation unit 30 including the vortex generation device 10 is provided on the ceiling C, the diameter D of the discharge port 14 satisfies a relationship of 0.045D 0.075. Thus, the whirlpool can be supplied from the ceiling C to a person located below about 1.5m to 2.5 m.

Modification of embodiment 1

In the above embodiment, the vortex generating device 10 is installed on the ceiling C, and the vortex is discharged downward. However, the location where the vortex generating device 10 is provided is not limited to the location of the embodiment. For example, as shown by the imaginary line in fig. 1, the swirl generating device 10 may be installed on the wall W of the room, and the swirl R may be discharged toward the side to deliver the fragrance component to the person sleeping. The height of the vortex generator 10 may be set as appropriate.

The vortex generating device 10 may be incorporated into the indoor unit 41. In this case, it is preferable that a swirl release port be provided in the indoor unit 41 independently of the conditioned air outlet.

In the case where the airflow generation unit 30 including the vortex generation device 10 is provided on the wall W, the diameter D of the discharge port 14 preferably satisfies the relationship of 0.045 ≦ D ≦ 0.060. Under the condition of being arranged on the wall, the reaching distance A of the vortex is more than or equal to 1.5m and less than or equal to 2.0 m. This is because 0.045. ltoreq. D.ltoreq.0.060 is an appropriate range for the arrival distance A. The range of U, L is the same as described above. Thus, the vortex can be supplied to a person about 1.5 to 2.0m away from the wall W.

Other embodiments

The above embodiment may be configured as follows.

For example, although eight extrusion mechanisms 16 are provided in the vortex generating device 10 in the above embodiment, the number of extrusion mechanisms 16 is merely an example, and may be one.

In the above embodiment, the fragrance component is contained in the vortex and supplied to the sleeper, but the component added to the vortex may be any release component other than the fragrance component, or may be supplied only to the sleeper without adding the release component. Further, the object to be supplied with the vortex need not be a person sleeping in the room, and for example, the vortex supply device 10 may be installed on the wall W in a meeting room or other meeting place, and the vortex containing the fragrance or the like may be supplied toward the center of the indoor space.

In the embodiment, the discharge port 14 of the vortex generating apparatus 10 is formed in a circular shape. However, the shape of the discharge port 14 is not limited to a circle, and may be a polygon or other shape as long as it is an equivalent hydraulic diameter of the diameter D.

While the embodiments and the modifications have been described above, various changes in form and details may be made therein without departing from the spirit and scope of the claims. Further, the above embodiments and modifications may be appropriately combined and replaced as long as the functions of the objects of the present disclosure are not impaired.

Industrial applicability of the invention

As explained above, the present disclosure is useful for a vortex generating device.

(symbol description)

10 vortex generating device

11 casing

13 air passage (gas passage)

14 Release port

16 extrusion mechanism

18 vibrating plate

C ceiling

S indoor space (object space)

W a wall.