AU2019441616A1 - Microbubble generation apparatus - Google Patents
Microbubble generation apparatus Download PDFInfo
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- AU2019441616A1 AU2019441616A1 AU2019441616A AU2019441616A AU2019441616A1 AU 2019441616 A1 AU2019441616 A1 AU 2019441616A1 AU 2019441616 A AU2019441616 A AU 2019441616A AU 2019441616 A AU2019441616 A AU 2019441616A AU 2019441616 A1 AU2019441616 A1 AU 2019441616A1
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- connecting surface
- water outlet
- passage
- generation apparatus
- water
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B01—PHYSICAL OR CHEMICAL PROCESSES OR APPARATUS IN GENERAL
- B01F—MIXING, e.g. DISSOLVING, EMULSIFYING OR DISPERSING
- B01F23/00—Mixing according to the phases to be mixed, e.g. dispersing or emulsifying
- B01F23/20—Mixing gases with liquids
Abstract
Provided is a microbubble generation apparatus (100), arranged at one end of a liquid supply apparatus, the sequential arrangement thereof containing: a water inlet unit (10), a water outlet unit (20), an air inlet groove (30), and a first sleeve (40); the water inlet unit (10) contains a plurality of first channels (11) penetrating the water inlet unit (10), and the penetrating end is provided with a first connecting surface (12); the water outlet unit (20) contains a plurality of second channels (21) penetrating the water outlet unit (20), and the penetrating end is provided with a second connecting surface (22); the second connecting surface (22) faces the first connecting surface (12) and they partially abut against each other to form the air inlet groove (30); the air inlet groove (30) contains a third channel (31) and a first accommodating chamber (32) arranged around the periphery; the first accommodating chamber (32) has a first separation distance, the length of which is different from a second separation distance (L2) of the third channel (31); the first sleeve (40) is arranged at the other end of the water outlet unit (20) opposite to the second connecting surface (22); thus the air inlet groove (30) utilizes the arrangement of the first accommodating chamber (32) and the third passage (31) having a shorter length to reduce the required negative pressure and improve the efficiency of gas-liquid mixing.
Description
The present invention relates to a microbubble generation
apparatus, and more particularly to a microbubble generation
apparatus for softening the water, increasing the air content of
the water and improving the fineness of the bubbles.
The conventional aerator is mainly composed of a pump, a
water outlet tube communicating with the pump, and an air-liquid
mixing tube connecting the water outlet tube. The water outlet tube
diameter is tapered from the pump toward the air-liquid mixing tube.
The air-liquid mixing tube comprises a conduit connecting the
water outlet tube, and an air inlet tube communicating with the
outside air, and the conduit has a diameter larger than that of the
water outlet tube. When the pump draws the water out and
pressurizes it to send to the junction of the water outlet tube and the
conduit, the water will form a negative pressure after entering the
conduit, and the negative pressure will cause the outside air to be
sucked into the air-liquid mixing tube from the air inlet tube, and
the air is mixed with the water to form bubbles. The mixed bubble
water is guided to an object to be washed, the objective of rinsing
and sterilizing through the aeration of water can be achieved. If the
aeration is used to rinse vegetables, purified water with high air
content also has the effect of decomposing pesticides.
However, when the water of the conventional aerator structure flows through the air-liquid mixing tube, the bubble volume is determined by the volume of the air inlet tube and the water pressure of the pump. In addition, the water pressure of the pump must maintain the water above a specific flow rate in order that the air can be drawn in to form an air-liquid mixture. Therefore, under the premise of unable to change the water pressure or reduce the flow rate arbitrarily, the user cannot use the conventional aerator structure to change the average volume of bubbles generated in the air-liquid mixing tube, so when the user needs finer bubbles for water purification, the conventional aerators cannot meet the requirement. In addition, the air-liquid mixture produced by the aforementioned bubble mixing device has a very low air content, and the bubble volume is large, so it is difficult to maintain the shape of the bubble for a long time, also it is required to match with a high water pressure to be possible of producing an air-liquid mixture with an air content, and it is not possible to produce an air-liquid mixture with a milky white color containing a large amount of dense and fine bubbles. Therefore, how to improve the drawbacks of the aforementioned prior art is an issue that the industry is eager to overcome. SUMMARY OF THE INVENTION An object of the present invention is to improve the problems that the conventional air-liquid mixing device cannot be used in a low water pressure state or the outputted air-liquid mixture is insufficient in the amount of bubbles, and the density and fineness of bubbles are insufficient. In order to achieve the above object, the present invention provides a microbubble generation apparatus disposed at one end of a liquid supply device. The microbubble generation apparatus comprises a water inlet unit, a water outlet unit, an air inlet groove, and a first sleeve. The water inlet unit comprises at least one first passage penetrating the water inlet unit, and a side of the water inlet unit penetrated by the first passage is provided with a first connecting surface; the water outlet unit comprises at least one second passage penetrating the water outlet unit, and a side of the water outlet unit penetrated by the second passage is provided with a second connecting surface, wherein the water inlet unit is disposed on the water outlet unit, and the first connecting surface and the second connecting surface partially abut against each other to form the air inlet groove between the first connecting surface of the water inlet unit and the second connecting surface of the water outlet unit, and the second passage communicates with the first passage, and the air inlet groove communicates an external air with the first passage and the second passage. The air inlet groove comprises a third passage and a first accommodating chamber circumferentially disposed around the third passage, the first accommodating chamber has a first spacing disposed perpendicularly to and between the first connecting surface and the second connecting surface, and the third passage has a second spacing between the first connecting surface and the second connecting surface. Wherein the first spacing is different from the second spacing; the first sleeve is disposed at a side of the water outlet unit opposite to the second connecting surface, the first sleeve is formed with a first side wall parallel to a first direction, an end of the first sleeve is formed with a first flange parallel to a second direction, and the first direction is orthogonal to the second direction.
Further, the first connecting surface of the water inlet unit is
disposed with an abutting portion protruding toward the second
connecting surface of the water outlet unit, the abutting portion is
abutted at the second connecting surface, and the third passage is
circumferentially disposed around the abutting portion. The first
side wall of the first sleeve is disposed with at least one venting
through hole communicating with the first accommodating chamber
at a position opposite to the first accommodating chamber, and the
water inlet unit and the water outlet unit are accommodated in the
first sleeve.
Further, an end of the first passage is defined as a first water
inlet and another end of the first passage is defined as a first water
outlet, the first water outlet is located at the first connecting surface,
and the first passage is tapered from the first water inlet toward the
first water outlet.
Further, an end of the second passage is defined as a second
water inlet and another end is defined as a second water outlet, a
water guiding portion is disposed between the second water inlet and the second water outlet. The second water inlet is located at the second connecting surface, and is tapered toward the water guiding portion. The second water outlet is enlarged in parallel with the first direction and away from the water guiding portion. Further, the water guiding portion has a third spacing at the second direction, and a length ratio of the second spacing to the third spacing is between 1:20 and 1:100. Further, the first water outlet has a fourth spacing at the second direction, and a length ratio of the second spacing to the fourth spacing is greater than 1:1 and less than or equal to 1:3. Further, when viewed in the cross-sectional direction, the fourth spacing of the first water outlet is smaller than the second water inlet at an extending position of the second connecting surface. Further, the first spacing is greater than the second spacing. Further, the second connecting surface of the water outlet unit is disposed with an abutting portion protruding toward the first connecting surface of the water inlet unit, the abutting portion is abutted at the first connecting surface, and the third passage is circumferentially disposed around the abutting portion. Further, the water outlet unit is formed with a second side wall parallel to the first direction, the second side wall is circumferentially disposed around the water inlet unit and the first side wall, and the second side wall is disposed with at least one venting through hole corresponding to the first accommodating chamber and communicating with the first accommodating chamber
. Further, the water inlet unit is formed with a third side wall parallel to the first direction, the third side wall is circumferentially disposed around the water outlet unit and the first side wall, and the third side wall is disposed with at least one venting through hole corresponding to the first accommodating chamber and communicating with the first accommodating chamber. Further, the microbubble generation apparatus further comprises a second sleeve, the second sleeve accommodates the water inlet unit, the water outlet unit, the air inlet groove and the first sleeve, and fixes the microbubble generation apparatus to the liquid supply device. Further, the microbubble generation apparatus comprises a aerator mesh assembly disposed between the water outlet unit and the first sleeve, wherein the aerator mesh assembly comprises at least one partition and at least one aerator mesh disposed at a side of the partition along the first direction, the partition has a fourth passage penetrating through the partition, the fourth passage communicates with the second passage, and each of the aerator meshes further has a plurality of sieve holes. Further, the farther a number of the aerator mesh disposed between the two adjacent partitions is from the second connecting surface, the greater the number of the aerator mesh disposed between the partitions. Further, a size of each of the sieve holes is between 0.048 mm and 0.3 mm. Further, another side of the partition along the first direction disposed with at least one aerator mesh, a number of the aerator meshes disposed at the two sides of the partition is increased as a distance from the second connecting surface is increased, and projections of the sieve holes of the aerator meshes disposed at two sides of the partition onto the second connecting surface is smaller as the distance from the second connecting surface is increased. Further, a height of each of the partitions at the first direction is preferably between 0.2 mm and 1 mm. Therefore, through the third passage of the air inlet groove and the first accommodating chamber circumferentially disposed around the third passage, when arbitrary water flows through the water inlet unit and the water outlet unit, the present invention allows the outside air to be capable of simply passing through the venting through hole, the first accommodating chamber, and the third passage of the air inlet groove, so that the outside air enters the second passage after generating sound wave oscillation through the air inlet groove to mix air with liquid, and then air bubbles in the water are further cut and refined by the aerator meshes. Additionally, the air inlet groove further utilizes the arrangement of the first accommodating chamber and the third passage having a shorter length, so that the water under any water pressure can contain a large amount of dense and fine bubbles, thereby the present invention not only reduces the water pressure requirement of the water for the microbubble generation apparatus to generate the negative pressure, but also increases the efficiency of air-liquid mixing.
FIG. 1 is an exploded perspective view of a first embodiment of
the present invention;
FIG. 2 is a perspective combination view of the first
embodiment of the present invention;
FIG. 3 is a cross-sectional view of the first embodiment of the
present invention;
FIG. 4 is a schematic view of the state of use of the first
embodiment of the present invention;
FIG. 5 is a cross-sectional view of the state of use of the first
embodiment of the present invention;
FIG. 6 is a partial enlarged view of the first embodiment of the
present invention;
FIG. 7 is a cross-sectional view of a second embodiment of the
present invention;
FIG. 8 is a cross-sectional view of a third embodiment of the
present invention; and
FIG. 9 is an exploded perspective view of an aerator mesh
assembly of the present invention.
The technical features and operation modes of the present application described in the following preferred embodiments in conjunction with the accompanying figures are provided as reference for examining. Further, the proportions in figures of the present invention are not necessarily drawn according to actual scales in order to facilitate illustrating. The proportions in the figures are not intended to limit the scope of the requested claims. Furthermore, the ordinal numbers such as "first", "second", and the like used in the specification and the claims to modify the elements of the claims, are not intended to mean and represent that the claimed elements have any preceding ordinal numbers, nor do they represent the order of a claimed element and another claimed element, or the order of the manufacturing method. The use of these ordinal numbers are only used to make a claimed element with a certain name distinguishable from another claimed element with the same name.
In addition, the positions mentioned in the specification and the
claims, such as "on", "upper", "above", "under", "lower" or "below",
can mean that the two elements are in direct contact, or the two
elements are not in direct contact. When a value is defined between
a first value and a second value, the defined value comprises the
first value, the second value, or any value between the first value
and the second value.
Furthermore, the features of the various embodiments disclosed
herein can be combined with one another to form another
embodiment.
For the techniques of the present invention, please refer to FIG.
1, FIG. 2 and FIG. 4. The present invention provides a microbubble
generation apparatus 100 disposed at one end of a liquid supply
device 900, and the liquid supply device 900 can be a shower
nozzle, a faucet, etc. The microbubble generation apparatus 100
causes the water to contain a large amount of fine bubbles, raises
the air content in the water, and enhances the washing ability by
rubbing a surface of an object to be washed by the bubbles. The
microbubble generation apparatus 100 can be disposed at an
internal tube line of the liquid supply device 900, or can be installed
outside the liquid supply device 900 as shown in FIG. 4, and is not
limited in the present invention.
Specifically, as shown in FIG. 1, FIG. 3 and FIG. 5, the
microbubble generation apparatus 100 comprises a water inlet unit
10, a water outlet unit 20, an air inlet groove 30, a first sleeve 40, a
aerator mesh assembly 50 and a second sleeve 60. The water inlet
unit 10 comprises at least one first passage 11 penetrating through
the water inlet unit 10, wherein a side of the water inlet unit 10 is
defined as a first connecting surface 12, and one end of the first
passage 11 which is located at the first connecting surface 12 is
defined as a first water outlet 112, and another end of the first
passage 11 is defined as a first water inlet 111. The first passage 11
is tapered from the first water inlet 111 toward the first water outlet
112. In one embodiment, the water inlet unit 10 comprises a
plurality of the first passages 11. The water outlet unit 20 comprises at least one second passage 21 penetrating through the water outlet unit 20, wherein a side of the water outlet unit 20 facing the first connecting surface 12 is defined as a second connecting surface 22, and the second connecting surface 22 and the first connecting surface 12 partially abut against each other. One end of the second passage 21 which is located at the second connecting surface 22 is defined as a second water inlet 211 communicating with the first water outlet 112, and another end of the second passage 21 is defined as a second water outlet 212.Further, a water guiding portion 213 is disposed between the second water inlet 211 and the second water outlet 212. The air inlet groove 30 is formed between the first connecting surface 12 of the water inlet unit 10 and the second connecting surface 22 of the water outlet unit 20, and the air inlet groove 30 comprises a third passage 31 and a first accommodating chamber 32 circumferentially disposed around the third passage 31. The first accommodating chamber 32 communicates with external air (not labeled with number, as indicated by circles shown in FIG. 5), allowing the external air to pass through the first accommodating chamber 32 and then pass through the third passage 31 to mix with the water which passes through the first passage 11.The air then flows into the second passage 21, as indicated by a dotted line arrow as an external air path. The first sleeve 40 is disposed at another side of the water outlet unit 20 opposite to the second connecting surface 22. The first sleeve 40 is formed with a first side wall 41 parallel to a first direction Z and a first flange 42 parallel to a second direction X and connected to the first side wall 41. The first direction Z is orthogonal to the second direction X. The aerator mesh assembly 50 is disposed between the water outlet unit 20 and the first sleeve 40, and the aerator mesh assembly 50 comprises at least one partition 51 and at least one aerator mesh 52, the at least one aerator mesh 52 is disposed at least one side of the partition 51 along the first direction Z. Each of the partitions 51 is penetrated by a fourth passage 511, and at least one of the aerator meshes 52 is disposed between the two adjacent partitions 51. Please refer to FIG. 9, two sides of the partitions 51 in this embodiment are both disposed with the at least one aerator mesh 52, and each of the aerator meshes 52 comprises a plurality of sieve holes 521. Further, comparing the amounts of the aerator meshes 52 disposed at the two sides of the partition 51, the side which is farther from the second connecting surface 22 is disposed with a larger amounts of the aerator meshes 52. Besides, the larger amount of the aerator meshes 52 corresponds to the smaller size of the sieve holes 521 projected onto the second connecting surface 22. That is, the size of the sieve holes 521 of three aerator meshes 52 is smaller than the one of two aerator meshes 52 when projecting on the second connecting surface 22. Moreover, the second sleeve 60 is able to accommodate the water inlet unit 10, the water outlet unit 20, the air inlet groove 30, the aerator mesh assembly 50, and the first sleeve 40. Besides, the second sleeve 60 can fix the microbubble generation apparatus 100 on the liquid supply device 900.
Referring to FIG. 3, FIG. 5 and FIG. 6, in this embodiment, the
first accommodating chamber 32 has a first spacing LI between the
first connecting surface 12 and the second connecting surface 22,
and the third passage 31 has a second spacing L2 between the first
connecting surface 12 and the second connecting surface 22,
wherein the first spacing Li is different from the second spacing L2.
In this embodiment, the first spacing LI is greater than the second
spacing L2. The first spacing LI refers to a distance between the
first connecting surface 12 and the second connecting surface 22 at
the first accommodating chamber 32, and the second spacing L2
refers to a distance between the first connecting surface 12 and the
second connecting surface 22 at the third passage 31. Further, due
to errors of manufacturing processes, the first connecting surface 12
and the second connecting surface 22 are substantial parallel to each
other, and spacing between the first connecting surface 12 and the
second connecting surface 22 substantially is the smallest distance
between the first connecting surface 12 and the second connecting
surface 22. The water guiding portion 213 has a third spacing L3 at
the second direction X when viewed in the cross-sectional direction,
and a length ratio of the second spacing L2 to the third spacing L3
is between 1:20 and 1:100. The first water outlet 112 has a fourth
spacing L4 at the second direction X when viewed in the
cross-sectional direction, and a length ratio of the second spacing
L2 to the fourth spacing L4 is greater than 1:1 and less than or equal to 1:3. Referring to FIG. 6 again, in this embodiment, the first connecting surface 12 of the water inlet unit 10 is disposed with an abutting portion 13 protruding toward the second connecting surface 22 of the water outlet unit 20, and the abutting portion 13 is abutted on the second connecting surface 22. However, the present disclosure is not limited thereto, that is, the abutting portion 13 may also be protruded from the second connecting surface 22 of the water outlet unit 20 toward the first connecting surface 12 of the water inlet unit 10 (not shown in the figure).
In addition, as shown in FIG. 1, FIG. 3, FIG. 4, FIG. 5, and FIG.
6, in this embodiment, the first side wall 41 of the first sleeve 40 is
disposed with at least one venting through hole 43 communicating
with the first accommodating chamber 32 at a position
corresponding to the first accommodating chamber 32, and the first
flange 42 of the first sleeve 40 is convexly disposed inwardly to
abut and limit a position of the aerator mesh assembly 50. In this
embodiment, two of the venting through holes 43 are provided, the
venting through holes 43 communicate with the first
accommodating chamber 32 of the air inlet groove 30, and the
water inlet unit 10 and the water outlet unit 20 are accommodated in
the first sleeve 40. The second water inlet 211 is located at the
second connecting surface 22 and is tapered toward the water
guiding portion 213, and the second water outlet 212 is enlarged
toward the water guiding portion 213 at the first direction Z. The water inlet unit 10 is disposed on the water outlet unit 20, and the second passage 21 communicates with the first passage 11 and the third passage 31. The venting through hole 43 not only allows the outside air to enter the air inlet groove 30, but the venting through hole 43 also facilitates cleaning of the microbubble generation apparatus 100 by a user by means of needle, gas injection or liquid injection. Wherein two of the venting through holes 43 are preferably disposed in the first side wall 41 as in the present embodiment, but one or more than two of the venting through holes 43 can also be disposed , for example, three of the venting through holes 43 are disposed in the first side wall 41. In this embodiment, each of the first passages 11 is tapered from the first water inlet 111 toward the first water outlet 112, and the fourth spacing L4 at the first water outlet 112 is smaller than a diameter of the second water inlet 211 at a extending position of the second connecting surface 22, so that after the water passes through the first passage 11, the water is pressurized first due to the tapered diameter and then flow to the second passage 21, and a Venturi effect is occurred in the air inlet groove 30 to cause the external air to pass through the first accommodating chamber 32 and the third passage 31 of the air inlet groove 30 from the venting through hole 43, and allow the external air to be mixed with the water in the first passage 11. Then, the water mixed with the external air flows into the second passage 21. As shown in FIG. 4, FIG. 5 and FIG. 6, after the water passes through the first water outlet 112 of the first passage 11, a negative pressure will be generated in the second water inlet 211 with a larger diameter and the third passage 31.
After the air is introduced into the first accommodating chamber 32
through the venting through hole 43, the air passes through the third
passage 31 from the first accommodating chamber 32 to generate a
vigorous air-liquid mixing effect with the water at the second water
inlet 211 of the second passage 21. Thus, not only that the density
and the number of bubbles generated are increased by reducing the
length of the second spacing L2 of the air inlet groove 30, and
further, the water pressure requirement of negative pressure for
generating the Venturi effect is reduced because a path length of the
air passing through the third passage 31 is shortened.
Referring to FIG. 9, in order to increase the number of bubbles
outputted by the aerator mesh assembly 50 of the microbubble
generation apparatus 100, each of the aerator meshes 52 comprises
the sieve holes 521. Further, the amount of the aerator mesh 52
disposed at the side of the partition 51 which is farther from the
second connecting surface 22 is larger. Besides, since the larger
amount of the aerator meshes 52 corresponds to the smaller size of
the sieve holes 521 projected onto the second connecting surface 22,
the size of the sieve holes 521 of three aerator meshes 52 is smaller
than the one of two aerator meshes 52 when projecting on the
second connecting surface 22, and the size of the sieve holes 521 of
two aerator meshes 52 is smaller than the one of single aerator mesh
52 when projecting on the second connecting surface 22. For example, in this embodiment, three aerator meshes 52 and one partition 51 are provided at the position which is farthest from the second connecting surface 22, and then two aerator meshes 52 and the partition 51 are provided, and then one aerator mesh 52 is provided at the position which is nearest to the second connecting surface 22. That is, different amounts of the aerator meshes 52 are separated by the partitions 51. Besides, when viewing the sieve holes 521 projected on the second connecting surface 22 from the first direction Z, the sizes of the sieve holes 521 with different amounts of the aerator meshes 52 are different since different amounts of the aerator meshes 52 are stacked and overlapped together. Therefore, the aerator meshes 52 located at the position farther from the second connecting surface 22 not only comprises the larger amount of the aerator meshes 52, but also have the smaller size of the sieve holes 521 projected onto the second connecting surface 22. Furthermore, in this embodiment, another partition 51 and another aerator mesh 52 are further disposed on the aerator mesh 52 located at the position closest to the second connecting surface 22 to filtrate impurities in water. When the invention is used in a general household faucet, or in a sprinkler for car washing or agriculture, the size of the sieve holes 521 of each of the aerator meshes 52 is preferably between 0.048 mm and 0.3 mm depending on the amount of water flowing through, and a height of each of the partitions 51 parallel to the first direction Z is preferably between 0.2 mm and 1 mm, however, the disclosure is not limited thereto. As shown in FIG. 7, in a second embodiment of the present invention, the water outlet unit 20 is formed with a second side wall 23 parallel to the first direction Z, and the second side wall 23 is circumferentially disposed around the water inlet unit 10, the aerator mesh assembly 50 and the first side wall 41. The second side wall 23 is disposed with at least one venting through hole 24 communicating with the first accommodating chamber 32 at a position corresponding to the first accommodating chamber 32, and the first flange 42 of the first sleeve 40 is convexly disposed outwardly to abut and limit a position of the second side wall 23. As shown in FIG. 8, in a third embodiment of the present invention, the water inlet unit 10 is formed with a third side wall 14 parallel to the first direction Z, and the third side wall 14 is circumferentially disposed around the water outlet unit 20, the aerator mesh assembly 50 and the first side wall 41. The third side wall 14 is disposed with at least one venting through hole 15 communicating with the first accommodating chamber 32 at a position corresponding to the first accommodating chamber 32, and the first flange 42 of the first sleeve 40 is convexly disposed outwardly to abut and limit a position of the third side wall 14.
Claims (18)
1. A microbubble generation apparatus, disposed at one end of a
liquid supply device, the microbubble generation apparatus
comprising:
a water inlet unit, comprising at least one first passage
penetrating the water inlet unit, and a side of the water inlet unit
penetrated by the first passage being provided with a first
connecting surface;
a water outlet unit, comprising at least one second passage
penetrating the water outlet unit, a side of the water outlet unit
penetrated by the second passage being provided with a second
connecting surface, the second connecting surface facing the first
connecting surface, wherein the water inlet unit is disposed on the
water outlet unit, and the second passage communicates with the
first passage;
an air inlet groove, formed between the first connecting
surface of the water inlet unit and the second connecting surface of
the water outlet unit, and the air inlet groove comprising a third
passage and a first accommodating chamber circumferentially
disposed around the third passage; and
a first sleeve, disposed at a side of the water outlet unit
opposite to the second connecting surface, the first sleeve being
formed with a first side wall parallel to a first direction, an end of
the first sleeve being formed with a first flange parallel to a second
direction, and the first direction being orthogonal to the second direction; wherein the first connecting surface and the second connecting surface partially abut against each other; and wherein the first accommodating chamber has a first spacing between the first connecting surface and the second connecting surface, the third passage has a second spacing between the first connecting surface and the second connecting surface, and the first spacing is different from the second spacing.
2. The microbubble generation apparatus as claimed in claim 1, wherein the first connecting surface of the water inlet unit is disposed with an abutting portion protruding toward the second connecting surface of the water outlet unit, the abutting portion is abutted at the second connecting surface, the third passage is circumferentially disposed around the abutting portion.
3. The microbubble generation apparatus as claimed in claim 1, wherein an end of the first passage is defined as a first water inlet and another end of the first passage is defined as a first water outlet, the first water outlet is located at the first connecting surface, and the first passage is tapered from the first water inlet toward the first water outlet.
4. The microbubble generation apparatus as claimed in claim 3, wherein an end of the second passage is defined as a second water inlet and another end is defined as a second water outlet, a water guiding portion is disposed between the second water inlet and the second water outlet, the second water inlet is located at the second connecting surface, and is tapered toward the water guiding portion, and the second water outlet is enlarged toward a direction away from the water guiding portion.
5. The microbubble generation apparatus as claimed in claim 4,
wherein the water guiding portion has a third spacing at the second
direction, and a length ratio of the second spacing to the third
spacing is between 1:20 and 1:100.
6. The microbubble generation apparatus as claimed in claim 4,
wherein the first water outlet has a fourth spacing at the second
direction, and a length ratio of the second spacing to the fourth
spacing is greater than 1:1 and less than or equal to 1:3.
7. The microbubble generation apparatus as claimed in claim 6,
wherein the fourth spacing is smaller than the second water inlet at
an extending position of the second connecting surface.
8. The microbubble generation apparatus as claimed in claim 1,
wherein the first spacing is greater than the second spacing.
9. The microbubble generation apparatus as claimed in claim 1,
wherein the second connecting surface of the water outlet unit is
disposed with an abutting portion protruding toward the first
connecting surface of the water inlet unit, the abutting portion is
abutted at the first connecting surface, and the third passage is
circumferentially disposed around the abutting portion.
10. The microbubble generation apparatus as claimed in claim 1,
wherein the water outlet unit is formed with a second side wall
parallel to the first direction, the second side wall is circumferentially disposed around the water inlet unit and the first side wall, and the second side wall is disposed with at least one venting through hole corresponding to the first accommodating chamber and communicating with the first accommodating chamber.
11. The microbubble generation apparatus as claimed in claim 1, wherein the water inlet unit is formed with a third side wall parallel to the first direction, the third side wall is circumferentially disposed around the water outlet unit and the first side wall, and the third side wall is disposed with at least one venting through hole corresponding to the first accommodating chamber and communicating with the first accommodating chamber.
12. The microbubble generation apparatus as claimed in claim 1, wherein the first side wall of the first sleeve is disposed with at least one venting through hole corresponding to the first accommodating chamber and communicating with the first accommodating chamber, and the water inlet unit and the water outlet unit are accommodated in the first sleeve.
13. The microbubble generation apparatus as claimed in claim 1, further comprising a second sleeve, the second sleeve accommodating the water inlet unit, the water outlet unit, the air inlet groove and the first sleeve, and fixing the microbubble generation apparatus to the liquid supply device.
14. The microbubble generation apparatus as claimed in claim 1, further comprising a aerator mesh assembly, disposed between the water outlet unit and the first sleeve, wherein the aerator mesh assembly comprises at least one partition and at least one aerator mesh disposed at a side of the partition along the first direction, the partition has a fourth passage penetrating through the partition, the fourth passage communicates with the second passage, and each of the aerator meshes further has a plurality of sieve holes.
15. The microbubble generation apparatus as claimed in claim 14,
wherein a size of each of the sieve holes is between 0.048 mm and
0.3 mm.
16. The microbubble generation apparatus as claimed in claim 14,
wherein another side of the partition along the first direction
disposed with at least one aerator mesh, a number of the aerator
meshes disposed at the two sides of the partition is increased as a
distance from the second connecting surface is increased.
17. The microbubble generation apparatus as claimed in claim 16,
wherein projections of the sieve holes of the aerator meshes
disposed at two sides of the partition onto the second connecting
surface is smaller as the distance from the second connecting
surface is increased.
18. The microbubble generation apparatus as claimed in claim 14,
wherein a height of each of the at least one partition at the first
direction is preferably between 0.2 mm and 1 mm.
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| PCT/CN2019/083247 WO2020211043A1 (en) | 2019-04-18 | 2019-04-18 | Microbubble generation apparatus |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| AU2019441616A1 true AU2019441616A1 (en) | 2021-10-14 |
| AU2019441616B2 AU2019441616B2 (en) | 2023-02-02 |
Family
ID=72837703
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| AU2019441616A Active AU2019441616B2 (en) | 2019-04-18 | 2019-04-18 | Microbubble generation apparatus |
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| AU (1) | AU2019441616B2 (en) |
| WO (1) | WO2020211043A1 (en) |
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| CN117258572B (en) * | 2023-11-22 | 2024-04-05 | 日丰新材有限公司 | Microbubble generating device and pipeline system |
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| Publication number | Priority date | Publication date | Assignee | Title |
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| JPS58156321A (en) * | 1982-03-11 | 1983-09-17 | Hitachi Ltd | Air purification apparatus |
| CN103041723B (en) * | 2011-10-17 | 2014-10-15 | 曾永芳 | Micro-bubble generation device |
| CN206853485U (en) * | 2017-03-08 | 2018-01-09 | 赖旻均 | micro bubble apparatus |
| TWM552842U (en) * | 2017-08-22 | 2017-12-11 | Qing Yuan Ruan | Micro-bubble generator |
| TWI629247B (en) * | 2017-08-22 | 2018-07-11 | 阮慶源 | Microbubble generator |
| CN109420436A (en) * | 2017-09-01 | 2019-03-05 | 阮庆源 | Microbubble generator |
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2019
- 2019-04-18 WO PCT/CN2019/083247 patent/WO2020211043A1/en active Application Filing
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| AU2019441616B2 (en) | 2023-02-02 |
| WO2020211043A1 (en) | 2020-10-22 |
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