TW202131839A - Atomizing device simulating burning incense capable of serving as a water oxygen machine and an environmentally friendly incense at the same time - Google Patents

Abstract

An atomizing device simulating burning incense comprises a water container, a cover body and an accelerating pipe. The water container has an accommodating space for storing liquid, wherein a controller drives an electric vibrator to vibrate the liquid to generate an ascending fluid and conduct the light emitting element to generate a projected light at the same time. The cover body has an auxiliary nozzle arranged at the downstream position of the slot to separate the downstream position into a first flow path and a second flow path. A fluid flows through the first flow path and enters the auxiliary nozzle to increase the flow rate when flowing out, so that the fluid sucks a local fluid to enter into the second flow path to be mixed as an accelerated fluid at the same time. The accelerating pipe is combined in the slot. When the accelerated fluid enters the pipe hole, the flow rate is increased to form a high speed fluid to enter the punching hole from the expanded hole. The high speed fluid forms a steady-state fluid in the punching hole and straightly flow out with a predicted altitude from the exit end to simulate the state of burning incense.

Description

Atomizing device that simulates burning incense

The invention relates to a water-oxygen device, in particular to an atomization device that simulates burning incense.

The conventional essential oil device is such as the Taiwan Announcement No. M553636 Patent. Its main features are: it includes a heater. The heater includes a body and a cover. The body has a heating element. The cover is arranged above the heating element. The body has a hot air passage, and the hot air passage is provided with a carrier; a gas-permeable oil-absorbing body, the gas-permeable oil-absorbing body can absorb essential oils and is breathable, and the carrier carries the gas-permeable oil-absorbing body so that the gas-permeable oil-absorbing body is kept in the hot gas channel; the heating element is heated The subsequent air is guided through the hot air passage along the cover body and evaporates the essential oil through the breathable oil-absorbing body. The main disadvantage of its composition is that the height of the evaporative water molecules flowing out of the breathable oil-absorbing body 2 cannot be controlled.

Regarding the prior art of improving the structure of the ultrasonic aromatic water-oxygen machine, please refer to Taiwan Announcement No. M518990 and other patents. Its main feature is that the mist generator 104 can atomize the liquid through the atomizing sheet 1040 and pass through the base. The fan 16 on 10 sucks in the outside air from the air inlet 101 at the bottom of the base 10 and blows the atomized water molecules out through the air duct 142 of the housing 14, due to the atomization The fixed angle of the sheet 1040 is between 3°-10°, which can effectively increase the high-density feeling of the mist generated by the mist generator 104, so that the water droplets can avoid falling vertically, and the mist and the water droplets can be separated to increase the fog. The purpose of the amount.

The conventional atomization device is such as the Taiwan Announcement No. M511375 Patent. Its main features are: the wind covers 35 have a central wall 351, a retaining wall 352 that is inclined outwards and surrounds the central wall 351, and a A threaded groove 353 is provided on the inner surface of the central wall 351 and has an internal thread. The wind covers 35 are combined and positioned on the top of the spray tubes 327 by the screw connection grooves 353 and the screw blocks 3274 of the spray tubes 327, and the retaining walls 352 of the wind covers 35 are in parallel with each other. Spaced from the outer peripheral surface of the top of the spray pipes 327, the blocking walls 352 of the wind cover 35 shield at least 1/2 of the area of the air outlets 3273 of the spray pipes 327.

Many patents are derived from the conventional atomization device. For example, the shortcomings derived from the patent cases No. M488346, M440820, M440116, M424196, M423586, D142094, D131981, M344159, 590661, 590662, 201808459 can be mentioned in this creation. And to solve these problems, it is quite practical.

The purpose of the present invention is to provide a water-oxygen machine with an atomizing device that simulates incense burning, which can also have the effect of environmentally friendly incense.

The atomization device for simulating incense burning that can achieve the above-mentioned purpose of the invention includes:

A water container is provided with an accommodating space for storing liquid, an electric vibrator, a convex structure with a projection angle, and a light-emitting element under the convex structure are arranged at the bottom, and is controlled by a The device generates a driving signal to drive the electric vibrator to vibrate the liquid suspended above to generate volume expansion to make it excessively expand into a rising fluid, and at the same time conduct the light emitting element to generate a projected light;

A cover body is fixed on the top of one of the water containers with a bottom ring to form a combined space. A groove is arranged on the cover, a guide hole is arranged at the bottom of the groove, and an auxiliary is arranged at the downstream position of the groove. The auxiliary nozzle is used to separate the downstream position of the groove into a first flow path and a second flow path, and the first flow path forms an inlet and an outlet, and the upflow system is The expansion rate separates the ascending fluid into a fluid and a partial fluid. The fluid flows through the inlet and enters the auxiliary nozzle from the first flow path, and then increases the flow rate when flowing out of the discharge port. A low-pressure zone is formed after the discharge port, so that the fluid sucks the local fluid into the second flow path and simultaneously mixes into an accelerated flow;

An accelerating tube is combined in the groove and is a projection object of the projected light to form a brightness channel. The accelerating tube is successively composed of a shrinking hole, a tube hole, a reaming hole, and a punching hole from downstream to upstream. The accelerated flow enters the tube hole from the guide hole and the constriction hole, and the inner diameter area of the tube hole is larger than the entrance area of the constriction hole, so that the speed of the accelerated flow increases to a high speed when the accelerated flow enters the tube hole Flow and then enter the punching hole from the reaming hole, the high-speed flow in the punching hole The flow velocity in the hole decreases and the pressure increases, and finally the high-speed flow forms a steady-state flow in the punching hole and flows out a predicted height from the outlet end pen to simulate the state of burning incense.

1: water container

11: accommodating space

12: top

13: Atomization plane

14: Electric vibrator

15: heat sink

16: raised structure

17: Light-emitting element

18: Controller

181: Switch

19: Power supply terminal

2: cover body

21: bottom circle

22: Groove

23: pilot hole

24: lower surface

25: squeeze hole

3: auxiliary nozzle

31: Guide surface

32: fixed pillar

33: Entry

34: Outlet

35: The first flow path

36: Second flow path

37: low pressure area

4: Combination space

5: Acceleration tube

51: shrink hole

511: entrance area

512: Export area

52: pipe hole

521: inner diameter area

53: Reaming

531: entrance area

54: Punching

541: Inner diameter area

6: Liquid

7: Ascending fluid

71: Fluid

72: local fluid

73: Accelerated Stream

74: high-speed flow

75: steady flow

Fig. 1 is a schematic diagram of the assembly of the first embodiment of the atomizing device for simulating incense burning according to the present invention;

Figure 2 is an exploded schematic view of the first embodiment of the atomizing device for simulating incense burning;

Figure 3 is an enlarged cross-sectional view of the auxiliary nozzle;

Figure 4 is an enlarged cross-sectional view of the accelerating tube;

Figure 5 is a schematic diagram of the fluid flow of the atomizing device for simulating incense burning;

Fig. 6 is a view of the second embodiment of the atomizing device for simulating incense burning;

as well as

Fig. 7 is a view of the second embodiment of the atomizing device for simulating incense burning.

1 and 2, the first embodiment of the present invention provides a simulated incense burning atomization device, which mainly includes: a water container 1, a cover 2, an auxiliary nozzle 3, and an acceleration tube 5. ；

The water container 1 (water receiver) is provided with an accommodation space 11 for storing and containing a liquid 6, and an atomization plane 13 (atomization plane) is provided at the bottom, and an atomization plane 13 (wringing) is closely attached to the atomization plane 13 Electric vibrator 14 (electric vibrator) and a heat sink 15 (radiator 0fin), with A convex structure 16 with an angle of projection and a light emitting element 17 located under the convex structure 16, and a controller 18 (controller) is electrically connected to the electric vibrator 14 and the light emitting element 17 And a power supply terminal 19 (delivery point), which uses a switch 181 to activate the controller 18 to generate a driving signal to drive the electric vibrator 14 to vibrate the liquid 6 suspended above the atomization plane 13 to generate volume expansion (volume expansion) to overexpansion into a rising fluid 7 (dilatant current), while turning on the light-emitting element 17 to generate a projected light, the convex structure 16 can focus the projected light on the cover 2 or The shrinking hole 51 of the accelerating tube 5. Wherein, the power supply terminal 19 is composed of an external power source, or a storage battery, or a combination thereof; wherein, the heat sink 15 provides a device for transferring the heat generated by the electric vibrator 14 to the surrounding medium;

The cover 2 is fixed on a top 12 of the water container 1 with a bottom ring 21 to form an assembly space 4, on which a groove 22 (Cave) is arranged, and the bottom of the groove 22 is arranged A guide hole 23. A sub-nozzle 3 with a guide face 31 is arranged downstream of the groove 22. As shown in FIG. 3, the lower periphery of the auxiliary nozzle 3 extends to form a plurality of fixed A tie strut is assembled in a plurality of hole burnishing (hole burnishing) on the inferior surface 24 (inferior surface) of the cover 2 by a close fit, and the tie strut 25 is opposite to the fixed pillar 32, The auxiliary nozzle 3 is used to separate the downstream position of the groove 22 into a first flow path 35 and a second flow path 36, and the first flow path 35 forms an inlet An inlet 33 and an outlet 34. The ascending fluid 7 separates the ascending fluid 7 into a fluid 71 and a partial fluid 72 at a dilatometric rate. The fluid 71 flows through the inlet 33 and is passed through the first The flow path 35 enters the auxiliary nozzle 3 and then flows out from the discharge port 34 to increase the flow rate. A low-pressure zone 37 (low-pressure zone) is formed behind the discharge port 34 of the auxiliary nozzle 3, so that the fluid 71 can absorb the The local fluid 72 enters the second flow path 36 while being mixed into an accelerated fluid 73, as shown in FIG. 5;

As shown in FIGS. 4 and 5, the accelerating tube 5 (accelerating tube) is combined in the groove 22 and is a projective object of the projected light to form a brightness channel. The downstream to upstream of the tube 5 is continuously composed of a contraction cavity 51 (contraction cavity), a tube hole 52 (tube hole), a reaming hole 53 (unterboring) and a punching hole 54 (punching), and the accelerating flow 73 is from The guide hole 23 and the shrink hole 51 enter the tube hole 52, and the inner diameter area 521 of the tube hole 52 is greater than 50% of the entrance area 511 of the shrink hole 51, so that the speed of the accelerated flow 73 increases when it enters the tube hole 52. The high speed fluid 74 enters the punching hole 54 through the reaming hole 53. The entrance area 531 of the reaming hole 53 is greater than 50% of the inner diameter area 541 of the punching hole 54, and the high speed fluid 74 The flow velocity decreases in the punching hole 54 and the pressure increases, and finally the high-speed flow 74 forms a steady-state fluid 75 (steady-state fluid) in the punching hole 54 and flows out of a precomputed altitude (precomputed altitude) or One apparent height to simulate burning incense. Wherein, the shrink hole 51 has a first length in the flow direction, The tube hole 52 has a second length in the flow direction, the reaming hole 53 has a third length in the flow direction, and the punching hole 54 has a fourth length in the flow direction. The first length is the second length. 1.5 to 2.5 times the length, the third length is 1.5 to 2.5 times the second length, and the fourth length is 2.5 to 3.5 times the third length.

In order to explain the present invention in more detail, please refer to FIG. The electric vibrator 14 disperses the liquid 6 water molecular structure (such as water and essential oil, or pure dew) above the atomization plane 13 by ultrasonic vibration (oscillation frequency is 1.7MHz or 2.4MHz) to generate mist change. The controller 16 has the function of enabling the electric vibrator 14 to have an automatic water cut-off protection function. When the water level is lower than the water level switch, the controller 16 will be powered off so that the electric vibrator 14 will automatically stop working.

In addition, the electric vibrator 14 constantly vibrates to cause the liquid 6 to expand and atomize to produce an ascending motion (ascending motion) to push the ascending fluid 7 to circulate and fill the combined space 4, the pressure of the combined space 4 increases, because The electric vibrator 14 is directly arranged under the auxiliary nozzle 3. The ascending fluid 7 is continuously pushed by the ascending motion and is separated into the fluid 71 and the partial fluid 72. Therefore, the fluid 71 is first passed by the auxiliary nozzle 3 The direction of the inlet 33 advances and enters the auxiliary nozzle 3 from the first flow path 35, and then flows out from the direction of the discharge port 34 of the auxiliary nozzle 3, so that the ascending fluid 7 in the combined space 4 can continuously and repeatedly circulate ( continuous repeat-cycle) During the upward movement to push the fluid 71 into the inlet 33 of the auxiliary nozzle 3;

When the fluid 71 flows out of the discharge port 34, the flow rate is increased, and a low pressure zone 37 is formed behind the discharge port 34. At the same time, the fluid 71 of the discharge port 34 sucks the local fluid 72 from the discharge port 34 with a negative force. The second flow path 36 enters and is mixed together to form the accelerating flow 73, and the boosting of the rising fluid 7 is completed to push the accelerating flow 73 into the guide hole 23 and the contraction hole 51;

When the accelerating flow 73 enters the tube hole 52 from the guide hole 23 and the contraction hole 51, the contraction hole 51 has the first length in the flow direction, and the tube hole 52 has the second length in the flow direction, The first length is 1.5 to 2.5 times the second length, the outlet area 512 of the shrink hole 51 is greater than 50% of the inlet area 511 of the shrink hole 51, and the inner diameter area 521 of the tube hole 52 is larger than the shrink hole 51 50% of the inlet area 511, therefore, the flow velocity of the inlet 33 of the shrink hole 51 is lower than that of the outlet 34, that is, the pressure of the inlet 33 of the shrink hole 51 will be higher than that of the outlet 34 Pressure, when the accelerating flow 73 enters the tube hole 52, the flow rate rises again to the high-speed flow 74;

The high-speed flow 74 is accelerated (accelerate) into the punching hole 54 by the reaming hole 53. The flow velocity at the inlet end of the punching hole 54 decreases and the pressure rises. Finally, the high-speed flow 74 forms a hole in the middle section of the punching hole 54. The steady-state fluid 75 (steady-state fluid) flows out the predicted height or the apparent height from the outlet end pen. Because the projected light uses the accelerator tube 5 as the projected object, the acceleration The tube 5 forms a brightness channel to simulate the state of burning incense.

6 and 7, the second embodiment of the present invention provides a simulated incense burning atomization device, which mainly includes: a water container 1, a cover 2 and an auxiliary nozzle 3;

The water container 1 (water receiver) is provided with an accommodation space 11 for storing and containing a liquid 6, and an atomization plane 13 (atomization plane) is provided at the bottom, and an atomization plane 13 (wringing) is closely attached to the atomization plane 13 An electric vibrator 14 (electric vibrator) and a radiator 0fin 15 (radiator 0fin), a convex structure 16 with an angle of projection, and a light-emitting element 17 located under the convex structure 16, and A controller 18 (controller) is electrically connected to the electric vibrator 14, the light-emitting element 17 and a power supply terminal 19 (delivery point), which uses a switch 181 to activate the controller 18 to generate a driving signal to drive the electric vibrator 14 Vibrate the liquid 6 suspended above the atomization plane 13 to generate volume expansion (volume expansion) to overexpansion into a rising fluid 7 (dilatant current), and at the same time turn on the light-emitting element 17 to produce a projection Light, the convex structure 16 can focus the projected light on the cover 2. As shown in Figure 6; wherein, the power supply terminal 19 is an external power supply, or a battery, or a combination thereof; wherein, the heat sink 15 provides a means for transferring the heat generated by the electric vibrator 14 to its surrounding medium ；

The cover 2 is fixed on a top 12 of the water container 1 with a bottom ring 21 to form an assembly space 4 (assembly space), on which a recess is provided Groove 22 (Cave), the bottom of the groove 22 is provided with a guide hole 23, the downstream position of the groove 22 is provided with an auxiliary nozzle 3 (sub-nozzle) with a guide face 31, the auxiliary nozzle 3 A plurality of tie struts 32 (tie strut) are extended around the lower part of the cover 2 to close fit and are assembled in a plurality of hole burnishing holes 25 (hole burnishing) of the inferior surface 24 (inferior surface) of the cover body 2, and the hole burnishing 25 Relative to the fixed pillar 32, the auxiliary nozzle 3 is a projective object of the projected light, and the auxiliary nozzle 3 is used to separate the downstream position of the groove 22 into a first flow path 35 and a second flow path. The flow path 36, and the first flow path 35 forms an inlet 33 and an outlet 34. The ascending fluid 7 separates the ascending fluid 7 into a fluid 71 and a partial fluid at a dilatometric rate. 72. The fluid 71 flows through the inlet 33 and enters the auxiliary nozzle 3 through the first flow path 35, and then flows out of the outlet 34 to increase the flow rate, and a flow rate is formed behind the outlet 34 of the auxiliary nozzle 3. The low-pressure zone 37 allows the fluid 71 to suck the partial fluid 72 into the second flow path 36 and mix into an accelerated fluid 73 (accelerated fluid), as shown in FIG. 7.

To sum up, this case is not only innovative in terms of spatial form, but also can enhance the above-mentioned multiple functions compared with conventional articles. It should fully meet the requirements of novel and progressive statutory invention patents. An application is filed in accordance with the law, and you are kindly requested to approve it. This invention patent application is to encourage invention, and it is easy to feel the virtue.

1: water container

12: top

13: Atomization plane

14: Electric vibrator

15: heat sink

16: raised structure

17: Light-emitting element

18: Controller

181: Switch

19: Power supply terminal

2: cover body

21: bottom circle

3: auxiliary nozzle

4: Combination space

5: Acceleration tube

Claims (2)

An atomizing device for simulating incense burning, including: A water container is provided with an accommodating space for storing liquid, an electric vibrator, a convex structure with a projection angle, and a light-emitting element under the convex structure are arranged at the bottom, and is controlled by a The device generates a driving signal to drive the electric vibrator to vibrate the liquid suspended above to generate volume expansion to make it excessively expand into a rising fluid, and at the same time conduct the light emitting element to generate a projected light; A cover body is fixed on the top of one of the water containers with a bottom ring to form a combined space. A groove is arranged on the cover, a guide hole is arranged at the bottom of the groove, and an auxiliary is arranged at the downstream position of the groove. The auxiliary nozzle is used to separate the downstream position of the groove into a first flow path and a second flow path, and the first flow path forms an inlet and an outlet, and the upflow system is The expansion rate separates the ascending fluid into a fluid and a partial fluid. The fluid flows through the inlet and enters the auxiliary nozzle from the first flow path, and then increases the flow rate when flowing out of the discharge port. A low-pressure zone is formed after the discharge port, so that the fluid sucks the local fluid into the second flow path and simultaneously mixes into an accelerating flow; and An accelerating tube is combined in the groove and is a projection object of the projected light to form a brightness channel. The accelerating tube is successively composed of a shrinking hole, a tube hole, a reaming hole, and a punching hole from downstream to upstream. Constituted, the accelerated flow enters the tube hole from the guide hole and the contraction hole, and the inner diameter area of the tube hole is larger than The entrance area of the shrinking hole increases the velocity of the accelerating flow to a high-speed flow when entering the pipe hole and then enters the punching hole from the reaming hole. The high-speed flow forms a steady-state flow in the punching hole and flows out a predicted height from the outlet end pen to simulate the incense burning state. An atomizing device for simulating incense burning, including: A water container is provided with an accommodating space for storing liquid, an electric vibrator, a convex structure with a projection angle, and a light-emitting element under the convex structure are arranged at the bottom, and is controlled by a The device generates a driving signal to drive the electric vibrator to vibrate the liquid suspended above to generate volume expansion to make it excessively expand into an ascending fluid, and at the same time conduct the light emitting element to generate a projected light; and A cover body is fixed on the top of one of the water containers with a bottom ring to form a combined space. A groove is arranged on the cover, a guide hole is arranged at the bottom of the groove, and an auxiliary is arranged at the downstream position of the groove. The auxiliary nozzle is a projected object of the projected light, and the auxiliary nozzle is used to separate the downstream position of the groove into a first flow path and a second flow path, and the first flow path forms a second flow path An inlet and an outlet. The upflow system separates the ascending fluid into a fluid and a partial fluid at an expansion rate. The fluid flows through the inlet and enters the auxiliary nozzle through the first flow path, and then from the exhaust When the outlet flows out, the flow rate is increased, and a low pressure area is formed behind the discharge port of the auxiliary nozzle, so that the fluid can suck the local fluid into the second flow path The path is mixed into an accelerating flow at the same time.

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