TWI361111B - - Google Patents

Description

1361111, EMBODIMENT OF THE INVENTION: TECHNICAL FIELD The present invention relates to an air-dissolved water generating apparatus for producing hot water for generating fine bubbles. In particular, the present invention relates to an air-soluble raw material, which is configured to be a gas-dissolved water in which air is dissolved in water, and then to form a heat containing fine bubbles from the gas-dissolved water. The bath of the water generating device. [Prior Art] 4 ^ This publication discloses an air-dissolved water generating device in Japanese Patent Application No. 2 Q〇 7-3 i 3 4 6 j = _. The air in the past: the shaft = the slot with the pump. The trough has a cylindrical shape with a length of ::: direction. The groove is inclined with respect to the horizontal direction, and the axial direction is inclined. The first position of the second end of the second direction is located at the lower axis, liquid mail, and raft. The tank has a liquid inflow liquid progenitor outlet and an air flow outlet. It is placed in the outer peripheral surface of the groove; the position of the liquid/inlet system is the shape of the s. The liquid outflow port is formed in the outer peripheral surface of the tank so that the body flow inlet and the liquid outflow port are facing the crucible. The liquid is formed on the outer peripheral surface of the tank so as to be located at the first end side of the 0 θ flow inlet of the work outlet. Empty Qiu key sentence above. Pump 盥. Connected by liquid inflow, $, $, 帛..., & source. The pump is used in the previous material "to the fruit. - In the working water generating device, I is sprayed with water or mixed with water through the liquid 3 = port. The air in the spray system is mixed. As a result, the gas is dissolved. And = water with bubbles. Dissolved water of Zhao Zhao, the so-called gas::: water. The gas dissolved water flows to the bottom of the tank. 2 body dissolved water flows out through the liquid σ, from the tank to the bath gas, in the flow The gas dissolved in the gas below the tank remains large gas, and the package k is separated into liquid and gas again in the tank. Further, when the liquid delivered from the pump is in the water belonging to the mixed gas, the water in the tank is continuously supplied with the air H. The name and the release port are released. "The gas is set in the tank. However, in the conventional air-dissolved water generator, there is a problem that most of the undissolved gas tends to stay in the tank. The undissolved gas in the tank is difficult to dissolve in the water in the tank. Therefore, the conventional air dissolving and generating device has a problem that it is difficult to efficiently produce a gas dissolved water. In order to reduce the amount of undissolved gas, it is necessary to increase the contact time between the gas and the water in the tank. However, in order to make the time longer, the path for bringing the contact becomes longer, and the apparatus becomes larger. The problem. Further, 'the air-dissolved water generating device is connected to the bath, and the water stored in the tank is supplied to the air-dissolved water generating device by the pump, and the air discharged from the liquid outlet is dissolved in the bath to be circulated, The fine bubbles are generated from the air-dissolved water to form a bath with a two-gas dissolved water generating device. At this time, when bubbles having a large diameter are mixed in the air-dissolved water, bubbles having a large diameter are also mixed in the fine bubbles, which may cause a problem that the quality of the bath water is lowered. SUMMARY OF THE INVENTION The present invention has been made to solve the above problems. An object of the present invention is to provide an air-dissolved water generating apparatus which is configured to generate gas-dissolved water with high efficiency and reduce outflow of undissolved air bubbles. To solve the above problems, the air-dissolved water generating apparatus of the present invention comprises: a tank a liquid inflow port and a liquid outflow port; a discharge path connected to the liquid inflow port and configured to be connectable to the water supply source, and the water system flowing through the ejection path is configured to be ejected to the trough Thereby, water and air are mixed in the tank to form a gas dissolved water in which the gas is dissolved, and the tank is provided with a partition wall, and the partition wall divides the inside of the tank into a mixing chamber and a separation chamber, and the partition wall is from the tank a bottom portion is disposed to form a communication path connecting the mixing chamber and the separation chamber, the liquid inflow port is disposed in the mixing chamber, and the liquid outflow port is disposed in the separation chamber, the separation chamber is from the The mixing chamber receives the dissolved water containing the bubbles through the communication path, and separates the dissolved water and the bubbles of the gas, and the separated dissolved water is supplied to the outside from the liquid outlet, and is divided into The bubble is retained in the upper portion of the separation chamber together with the gas remaining in the upper portion of the separation chamber, and further includes a return line for communicating the separation chamber and the discharge path, and conveying the gas retained in the upper portion of the separation chamber to the discharge. In this case, the road can efficiently generate gas dissolved water. Preferably, an air flow outlet is formed at an upper end of the separation chamber, and one end of the return line is connected to the air flow outlet. Preferably, an air flow inlet is formed at the lower end of the mixing chamber, and one end of the return line is connected to the air flow inlet. The discharge path forms an air flow inlet, and one end of the return line is connected to the air flow inlet. Preferably, the ejection path is provided with an ejector and a tube, the ejector having a first end and a second end, the first end being coupled to the first end of the tube, the second end being coupled to the slot, at the ejector The first end forms an air flow inlet, and the flow path is provided inside the injector and the pipeline, and a cross-sectional area of the first end flow path of the injector forms a sectional area of the first end flow path of the pipeline Larger, one end of the return line is connected to the air flow inlet. In this case, the air which is sent to the discharge path by the return line can be efficiently dissolved in the water flowing through the discharge path. Next, the air flow inlet is preferably provided to the injector. Next, the air flow inlet is preferably disposed at the first end of the injector. An air release valve is preferably provided at the upper end of the separation chamber. Preferably, the water mixed with air is discharged from the discharge path 1361111 to the mixing chamber, and the volume per unit time of the air released from the air release valve is preferably set to be discharged from the discharge path. The air contained is more than 20% of the volume per unit time. Preferably, the separation chamber is divided into a first sub-separation chamber and a second sub-separation chamber by a baffle, and the baffle is formed such that an upper end of the baffle is pulled away from the groove, thereby forming a first pair of communication a communication port between the separation chamber and the second sub-separation chamber, and the bubble-containing gas-dissolved water transported from the mixing chamber is guided to the second sub-separation chamber through the first sub-separation chamber. The second side of the second separation room. Further, it is preferable to set the liquid outflow port at the bottom of the second sub-separation chamber, and set the cross-sectional area of the gas-liquid separation tank so that the liquid flow rate flowing through the second sub-separation chamber is relative to the liquid flow rate flowing out from the liquid outflow port to the outside. , for 1/5 or less. In this case, when the dissolved water containing gas bubbles flows from the first sub-separation chamber to the second sub-separation chamber through the upper end of the baffle, the bubble can be separated from the gas-dissolved water with high efficiency. Preferably, the groove has an upper wall defining an inner wall of the upper end of the separation chamber, and an inner wall of the upper end of the second sub-separation chamber is defined by an inclined wall which is continuously inclined downward from an inner wall of the upper end of the first sub-separation chamber, the reflow A pipe is connected to the upper wall of the tank above the first secondary separation chamber. 7 1361111 In this case, the empty path can be delivered from the return line at a high ratio. g Air dissolved water generation should be further equipped with air release... The air release valve is composed of a cylinder tube (b:rre 1 ) with a buoy inside, and the air release valve has a second:: above the chamber The upper wall of the groove is located at the lower end of the lower position, and the 5A cylinder is preferably formed such that the opening is formed at the lower end of the side. Preferably, the baffle and the partition wall have opposite sides of each other, and the plate or the partition wall protrudes toward the baffle or the other side of the partition wall to form a guide plate extending in a height direction of the groove . In the second, the bubble contained in the chamber is separated from the bubble-dissolved water by the gas in the upper part of the sub-separation t. Preferably, there is an extension plate at the center of the upper end of the baffle which extends toward the groove. In the case, it is possible to flow from the first sub-separation chamber to the second sub-divided to 3 gas-dissolved water-dissolving water and gas-dissolving water. It is preferable to provide a rectifying plate in the separating chamber, which is extended from the official SI!: lower portion of the separating chamber. The rectifying plate is formed in a direction opposite to the parent direction of the extending plate. In this case, since the second The bubble in the upper portion of the sub-separation chamber flows to the lower portion of the air, and the gas-dissolved water is dissolved in the air. The air-dissolved water generating device is installed in the bath, and the air-dissolved water generating device is disposed in the circulation flow path. The circulating flow path is sucked into the bath from the suction inlet of the one end portion and ejected from the liquid discharge port at the other end into the bath, and the gas supplied from the liquid outflow port dissolves the water from the liquid discharge port. The fine air bubbles are sprayed in the bath. Further, the air-dissolved water generating device should be disposed in the bathroom. The bathroom preferably has: a bath; a washing field, which is adjacent to the Luo slot; and is provided; Covering the surface of the washing tank side of the bath, a storage space is formed between the outer lid and the bath, and the bath is provided in the circulation flow path by the air dissolved water generating device. The suction inlet of the part sucks into the hot water in the bath and is ejected from the liquid discharge port at the other end into the bath, and the fine air bubbles are ejected from the liquid discharge port into the bath by dissolving the water supplied from the liquid outflow port. The outer cover defines a boundary between the washing field and the bath, and the air-dissolved water generating device is disposed in the storage space, and a soundproof material is disposed between the air-dissolved water generating device and the outer cover. A perspective view of a basic structure of an air-dissolved water generating apparatus according to an embodiment of the present invention. As shown in the first to fifth figures 9 1361111, the air-dissolved water generating apparatus 丄 has a closed tank 2 and a return line 12 in the tank 2 The bottom has "inflow 4, liquid outlet 8". An air outlet port 3 is provided at the upper end of the tank 2. The liquid inflow port 4 is provided with a water supply line 5 via an air inflow port formed on the side surface. The body fluid port 8, & is provided by the official road 9 for conveying the gas dissolved water described later. The return line 12 has a first connection to the air flow outlet 13 and a second end connected to the air flow inlet i4. The pump 7 is connected to the tank 2 via the ejector 17 and the water supply line 5, and is connected to a water supply source not shown. Pump 7 is supplied via water: way 5 and ejector! 7 Spout water from the water supply to 栌2. Or the pump 7 is ejected into the plate via the water supply line 5 and the ejector 17' industry = water in the water supply source of the mixed external air: therefore, the pump 7 squirts water having a predetermined water pressure to the tank 2 An enlarged four-sided view of the injector 丄7 and the water supply line $ is shown. The injector 丄7 is provided with ', 7 9 ', and the second side is the first end i #1. The second supply line 5 also has a first end 51 and a second second: 7 first end 17 1 and the water supply line 5: the second end of the injector 17 "2" connects the heart?, to the official road The second end of 5 is connected to the pump 7. The injection port 17 and the water supply line 5 have two flow paths of the first end (7). The cross-sectional area of the flow path of the first end 51 is larger. Further, the ejector 10 1361111 is gradually enlarged from the first end toward the second end. , ^ 7 is formed with a m port 14, which is located at the position of the connection portion between the material 17 and the water supply line 5. ,. 2 Air-to-water raw silk is operated as follows. Before the start of :7, the tank 2 is filled with air. In the pump 7, the pump 7 is used to spray water from the water supply source into the tank 2 to discharge water into the tank, and the water sprayed into the tank impinges on the tank ": the temple is impeached. Further, the pump 7 continues to spray water. In the tank, water accumulates in the tank 2. The water accumulated in the tank 2 collides with the wall of the impact and the bullet-like water again. Further, 17_ water is bred to the tank 2, so the water in the tank 2 is The water is stirred by the 7 rounds of water. With this impact, the gas accumulated in the tank 2 is mixed with the water worker. By mixing the air with the water, the water contains large bubbles. The water is agitated in the tank 2 to cause a breaking force in the water. The shearing force is applied to the large bubbles which have been mixed with water. The large bubbles which are subjected to the shearing force are split into fine bubbles. The bubbles become gas-soluble and easily dissolved in water. As a result, the air is dissolved in water, whereby the gas-dissolved water can be produced. The gas-dissolved water is sent to the bath or the like via the liquid outflow port 8. The dissolved water which is sent to the bath is exposed to atmospheric pressure. The result is autolysis = air in the water in which the gas dissolves water, producing micro The fine bubbles stay in the water. In this way, the water containing the fine bubbles is supplied to the bath or the like by 1361111. On the other hand, the air which is not dissolved in the water in the tank 2 becomes separated from the bubble 2 and is separated. The air bubbles are retained together with the gas remaining in the upper portion of the tank. The air remaining in the upper portion of the tank is sent to the injector 17 via the return line 12. In detail, in the operation of the air-dissolved water generating device 1, The pump 7 continuously supplies water to the tank 2 via the water supply line 5 and the ejector bowl 7, and the water that has been transported from the pump γ ^ over-injector 17 to the tank 2 is pressurized in the tank 2. Therefore, the pressure of the air flow outlet 13 is greater than the pressure of the air flow inlet 4, whereby a pressure difference is generated between the air flow outlet 13 and the air flow '14. The pressure difference will remain in the upper portion of the tank 2. The air is sucked into the return line 丄2 and the air is sent to the ejector 7 via the air outflow port 1.3. Therefore, in the air dissolved water generating device, the helium gas passes through the return line 12 and the mouthpiece", again 曰2 The liquid in the circulation is circulated. In the air of the liquid, then A is the emulsion "combined with the bubble wheel to 嗔 = = liquid", thereby re-spraying from the liquid 6 again, and then the air in the groove 17 is bubbled. In the case of air retention: the bubble in 6 is easier to dissolve in the liquid 6 than in the groove. Therefore, the gas can be dissolved in the liquid 6 with high efficiency at 12 1361111. Here, the dissolution rate of the gas is expressed by the following formula CV=KL * a .(C*-〇C v : dissolution rate KL : total material movement coefficient a · contact area

C * : Saturated dissolved gas concentration C: Dissolved gas concentration Long 1, 邛

The Mu Valley solution is calculated by multiplying the calcium product with the liquid and the product of the gas concentration gradient. The contact area a becomes larger, and the dissolution rate becomes larger. The latter is extravagant.

Only L 玍 玍 展 , , , , , , , , , , , , , , , , , , , , , 空气 空气 空气 空气 气流 气流This phase of the mouth is larger than the contact area of the air stagnation 6 above the groove. Heart = (four) 'air and liquid. Air can be dissolved in liquid 6 during the time. That is, in order to improve the dissolution efficiency of (4), the blood needs to extend the contact time of the liquid (4) with the gas. Therefore, the gas dissolution efficiency can be improved without increasing the path of the liquid. Therefore, it is possible to reduce the size of the device. The air remaining in the upper portion of the tank 2 is sent to the lower end of the tank 2 through the injection of 17. This makes it difficult to disturb the level of water in the tank 2. Thereby, large bubbles can be suppressed from flowing out. Further, the air-dissolved water generating device 1 is provided with a return line 1 2 . Therefore, the gas circulation can be continued via the return line 12 2 until the gas 18 remaining in the upper portion of the tank disappears. Thereby, the air-dissolved water generating device 1 can continuously dissolve the air in the liquid inside the tank 2 for a long time. Further, since the return line i 2 circulates the gas remaining in the upper portion of the tank 2 at the lower end of the tank 2, the liquid and the gas can be stirred with high efficiency. Further, the air inflow port 14 is provided in the injector port 7, whereby the air inflow port 14 is located at the bottom 3 of the tank 2. Therefore, the gas enthalpy 8 which moves the liquid in the tank can be brought into contact with the fluid 6 for a long time. Therefore, the gas can be further dissolved in the liquid with high efficiency. Further, in the air-dissolved water generating device, the air inlet port 14 is formed in the injection η 7 ', which is located at the joint portion i 6 of the water supply line 5 constituting the discharge path, and is rushed. The location of the enlarged part. Therefore, it is delivered from the pump 7: ^ through the water supply line 5, and then through the injector 丄7 most = 2. Here, the cross section of the first end flow path of the ejector 17 is set to the cross-sectional area of the first end flow path of the water supply line 5, and the flow rate of the liquid flowing through the water supply line 5 is compared with the ejector 17 The liquid flow rate is faster. The vortex is generated by the ' of the flow rate' and the portion where the air flow person π! 4 rushes to expand A. This thirsty flow is passed through the return line 2 and the working population χ 4 and will stay in the upper end of the tank 2 and suck in with a strong suction pressure of 1361111. Therefore, with this configuration, the amount of the transmitter 17 flowing to the gas worker 8 is increased. Furthermore, the difference in flow rate produces a shearing force in the sprayer 17. This shearing force is applied to the air sucked in through the air inlet 14 by the airflow, whereby the shearing force splits the air bubbles in the liquid delivered to the injector 17 into fine bubbles. The liquid having the fine bubbles is sent to the tank 2. That is, the contact area between the gas and the liquid in the tank is further increased. Further, since the suction pressure due to the difference in the flow rate is high, there is no clogging of the return line 12 in the like. That is, it is not necessary to particularly reduce the inner diameter of the return line 1 2 . Further, the larger the pressure difference ΔP between the pressure P1 in the vicinity of the air flow outlet 13 and the pressure P 0 in the vicinity of the air inlet 14 in the air-dissolved water generating device, the gas remaining in the upper portion of the tank 2 is sucked into the jet. The amount of the device 1 7 is increased. Then, the larger the contact area between the bubble and the ^^, the higher the dissolution efficiency of the gas with respect to the liquid. Therefore, in the present embodiment, the flow path area of the first end of the ejector 17 is set to be larger than the flow path area at the first end of the water supply line 5. ^ It is forced to stay in the upper part of the tank 2 by means of a pump or the like: air circulation. In this case, an air inflow port is formed at the bottom of the trough and then a pump is provided, which is configured to pass the return line 1 • to deliver air to the air inflow port. Further, in the present embodiment, the liquid inflow port 4 is formed at the bottom of the groove. However, as shown in the fourth figure, it is preferable to provide the liquid inflow port 4 on the side wall of the tank 2. The configuration other than the position of the 愔p and the dissolved water generating device in the tank 2 of the ': body flow inlet 4" "the air of the second figure is delivered to the gas of the ejector 17" The contact distance τ is determined to be shorter than the first to second and the second contact distance. The second dissolved water generating device is fixed. Further, this configuration can make the contact suitable for the orientation of the medium, and the second dissolved water generating device 1 has a height of two = two, and the same effect can be obtained even if the air inflow port 14 is disposed at the lower portion of the tube 2. Further, in the present embodiment, the water from the water 7 constituting the discharge path is formed by the Γγ road 5 and the ejector 17 so that the water pressure of the water flowing through the water supply pipe is Takata '1 and is not The discharge path is connected to the water supply pipe by using a pump, and the water of the water supply pipe is used, and the mouth is in the groove 2. In this case, there is no need to activate the pump. (Embodiment 1) FIG. 10 is a perspective view showing an air-dissolving two-component apparatus 1 according to Embodiment 1 of the present invention. Fig. 5 is a schematic view showing an air-dissolved water generating device i according to the embodiment of the present invention. The same applies to the basic configuration of the air-dissolved water generating device 1 of the first and second figures, and the same reference numerals will be given thereto, and the description will be omitted substantially. Too careful & /, 空气 男 男 男 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气 空气

Ill 2, pump 7, return line 12, ejector 17, line 5 (not shown), liquid outflow line 8b, air release valve 1 空气, air ejector 300, air inflow 3 Completion and 2 fixtures. As shown in the sixth drawing, the groove 2 is composed of a groove lower portion 2 l and a groove upper portion 2 (four) attached to the groove lower portion 2 L. At the bottom of the lower portion 2 L of the tank, a liquid inflow port 4 and a liquid outflow port 8 are provided. A liquid outflow line 8b' is disposed below the lower portion of the tank. This liquid outflow line 8b flows from the liquid outflow port 8 and the liquid is directed in the lateral direction. As shown in Fig. 15, a broadcast board 8c extending upward is provided inside the exiting official road 8b. The baffle 8 C is disposed along the longitudinal direction of the liquid outflow line 8 b. As shown in Fig. 16, the height of the baffle 8c is set to be less than one-half of the inner diameter of the liquid outflow pipe 8b. The lower portion 2 of the groove has an opening π above. The lower portion 2 L of the groove has a striker 2 9 extending upward as shown in the first or seventh figure, and a flange 2 is formed at the upper end of the outer portion of the groove lower portion 2 l in the lateral direction. There is an opening below the 邛2 U. In the upper portion of the groove 2, the side wall is formed with a partition wall 26 extending downward from the side. An air outflow port 3 is formed above the upper portion 2 U of the groove. An air release valve 1 is provided above the upper 2 ports of the tank. A flange 2 〇 U is formed at the outer peripheral lower end ' in the lateral direction of the upper portion 2U of the groove. The upper part of the trough 2 U is placed above the lower part of the trough 2 L. Then the flange 2 〇 L is driven by the snail

I3611H is fitted to the flange 2〇u to be fixed to the lower portion 2L of the groove. Thereby, the groove 2 has a width and a length. Therefore, there is a partition wall 26 and a baffle 2 9 inside the tank 2. The inside of the tank 2 is separated into a mixing chamber 2 2 and a separation chamber 23 by a partition wall 26 . The separation chamber 23 is separated into a first sub-separation chamber 2 3 1 and a second sub-separation chamber 2 3 by a baffle 209. The mixing chamber 2 2 is partitioned by the inner surface of the tank 2 and the partition wall 26. The mixing chamber 22 is provided to form a gas-dissolved water. A liquid inflow port 4 is formed at the bottom of the mixing chamber 22. The liquid inlet 4 is provided with an injector 17. The partition wall 26 is provided to divide the mixing chamber 2 2 and the separation chamber 2 3 . In other words, the partition wall 26 is provided to divide the mixing chamber 2 2 and the first sub-separation chamber 23 1 . The partition wall 6 6 is provided along the height direction of the groove 2. Further, as shown in the sixth drawing, the partition wall 26 is provided with the width of the horizontal groove 2. The lower end of the partition wall 26 is pulled away from the bottom surface of the tank 2, thereby forming a communication passage 26P that communicates the mixing chamber 2 2 with the first separation chamber 231. The first sub-separation chamber 213 is provided to separate the bubble-containing gas-dissolved water transported from the mixing chamber 22 through the communication passage 26p into bubbles and gas-dissolved water. As shown in Fig. 5, the mixing chamber 22 is disposed adjacent to the first-stage separation chamber 213, whereby the mixing chamber 22 and the first-stage separation chamber are disposed along the longitudinal direction of the groove 2. An air outflow is provided on the upper surface of the first separation chamber 213. The ventilator 209 is provided to separate the separation chamber 2 3 into the first sub-separation chamber 213 and the second sub-separation chamber 233. As shown in Fig. 5 or Fig. 6, the baffle plate 9 is provided along the height direction of the groove 2 and the baffle plate 9 is the width of the traverse groove 2. The baffle 2 9 is configured to have a surface facing one side of the partition wall 6 6 2 6 S 2 9 S. A guide plate 9 9 L is provided at a lower end of the fingerboard 2 9 , and the guide plate 9 9 L protrudes from the one side 2 9 S toward the partition wall 26 and extends in the south direction of the groove 2. An extension plate 2 9 U extending to the upper side is formed at the center of the upper end of the support plate 29. The upper end of the baffle plate 29 is pulled away from the upper surface of the groove 2, thereby forming a communication path 2 9 P that communicates the first separation chamber 213 and the second separation chamber 233. The baffle plate 29 is provided to separate the bubble-containing gas-dissolved water flowing from the first sub-separation chamber 23 into a gas and a gas-soluble water. • The second sub-separation chamber 2 3 2 is not used to trap the dissolved water from the first sub-separation chamber 2 3 1 via the communication passage 2 9 P. A liquid outflow port 8 is provided at the bottom of the second sub-separation chamber 233. The cross-sectional area of the liquid outflow port 8 is set to be 1/5 or less of the sectional area of the second sub-separation chamber 2 3 2 . • The inner wall of the upper end of the first sub-separation chamber 2 3 2 is defined by an inclined wall 26W which is continuous from the inner wall of the upper end of the first-second separation chamber and continuously inclined downward. An air release valve 1 is provided at the upper end of the second sub-separation chamber 233. Further, in the second sub-half gas rectifying plate 2 3 2 u, the rectifying plate 232 is discharged downward from the upper surface of the first sub-separating chamber 2 3 2 and along the groove 2 in the direction of the ghost I side. The rectifying plate 2 3 2 U is formed in the longitudinal direction of the bearing 2, that is, the rectifying plate 2 3 2 1] is the width of the extension plate 2 9 U of the wzy and the pickup plate 9 9 : it is formed in another direction. The first-second separation chamber 2 3 is disposed adjacent to the chamber 2 3 2 , whereby the mixing chamber “′: the tank 2 3 1 and the second sub-separation chamber 2 3 2 are along the j=edge: Configuration. Further, from the first sub-separation chamber 231, the chamber 2 2 2 is disposed in the county of the mixing chamber 22, and the baffle 2 9 J line and the first sub-separation chamber 2 in the height direction of the / σ reading plate 209 3丄 intersects with the second realm. Mainly as the second / spring road - the animal is the 7-series 7 of the water through the 7 2 system 2, whereby the control - end 5 1 pump 7 has a pump inlet 7 丄 and pump outlet 7 2 . As shown in the second figure, the pump inlet 71 is connected to the bath 90 by means of a pipe 40 作用 which acts as a circulation, and communicates with the bath 9 〇 via the pipe 40 〇. ‘The system will stay in the bath 9 that acts as a water supply source; the liquid stream population 4 will flow out to the tank 2. The pumping σ is connected to the mixing chamber 22 of the tank 2 by the water supply line 5 and the ejector 17 . The pump; the device C to control. The ejector 17 has a second end 171 connected to the water supply line 5, and a first end 171 and a liquid connection to the liquid inlet: 1 72. The ejector 17 and the water supply line 5 define $ The exit path 'the discharge path is for self-pumping to transport the liquid to the tank: two: at the first end 171 of the injector 17 forms an air flow inlet 1 4 〇 first, the flow line 12 has a connection with the air flow outlet 13 Two:: and a second end connected to the air inflow port 14. Thereby: the path 12 and the first-second separation chamber 231 and the second sub-portion to the upper end of the 2 3 2 are in communication with the injector 丄7. The β air release valve 1Q0 is a so-called material standard valve. Figure 14 = air release 阙 100. The air release valve 1 is composed of a steam 0 0 1 and a net standard 1 ◦ 2. In the cylinder tube i 0, the inside has In the steam red cylinder 101, an opening 103 is formed for communicating the cylinder i=space with the upper portion of the first-second separation chamber 231 and the second sub-separation chamber 2 3 at the lower end of the side of the cylinder barrel 1〇1. 2, an air removing hole 104 is formed on the upper surface. The buoy i 〇 2 is disposed in the cylinder bore portion. The steam red cylinder 1 〇 1 is disposed in the second sub-separating chamber 2 3 2 The upper wall is located at the lower part of the separation chamber of the cylinder bore i... the opening 1 0 3 of the steam 1 is located at a set distance more than the highest part of the second secondary separation chamber 2 3 2 Below, the air release valve is configured to be located above the rectifying plate 2 3 2 U. The two gas injector 3 Ο 0 is mounted to the pump inlet 7 1 of the pump 7. An air supply is provided at one end of the air injector 3 Port 0 2° Mountain tt air inlet 3 〇1 has a first end and a second end, the first end is installed in the air ejector 3 0 〇 air supply port 3 〇. 2 ', the second end is located The position above the upper wall of the tank 2 is set to attract the surrounding air of the second end of the air supply port 310. The fixing device 200 is used to fix the groove 2 or the pump 7. Φ Fix The device 2 Q has an opening σ at the upper side, and a flange 201 is formed at the edge of the opening. Next, the groove 2 is disposed above the fixing device 2〇〇 to arrange the flange 2 of the groove lower portion 2 L above the flange 210 〇L. Then the 'system 7 is mounted on the fixture 2〇〇 so that the pump 7 is located below the tank 2. This air dissolves The generating device 1 operates as follows: When the pump 7 is started, the pump 7 is sucked into the bath 9 from the suction inlet 4 0 3 via the pipe 4 〇〇 which is used as a part of the circulation flow path and the air ejector 3 0 The water flowing through the air ejector 3 generates pressure in the air ejector 3 。. This pressure is the force that is introduced into the air ejector 3 from the air inflow path 301. A pressure difference is generated between the first end and the second end of the air inflow path. By this pressure difference, air is sucked into the air injector 3 〇 through the air inflow path 301. Being sucked into the air 22 1361111 Air ejector 3 Ο 0 The air mix is passed through the air ejector 3 Ο 0 water. Thereby, the water flowing through the air ejector 300 contains air bubbles. Pump 7 then delivers water from pump 7 from pump outlet 7 2 . The water sent from the pump 7 is discharged into the mixing chamber 22 of the tank 2 via the water supply line 5 and the ejector 7. The water is ejected into the mixing chamber 22 by the pump 7, and the water ejected in the mixing chamber 2 2 is splashed by impinging on the wall of the mixing chamber 2 or the partition wall 26 or the like. The water sprayed into the mixing chamber 22 is thereby mixed with the air in the mixing chamber 2. Further, since the pump 7 continuously discharges water in the mixing chamber 22, water is retained in the mixing chamber 2 2 μ···. The water remaining in the mixing chamber 2 passes through the communication passage 2 ν, and the mountain Λ 6 Ρ also flows through the first sub-separation chamber 23 1 . Thereby, water is also retained in the first separation chamber 2 3 1 . Since the pump 7 continuously sprays water out of the mixing chamber 2, the water retained in the tank 2 impinges on the wall of the tank 2 and the like, and the splashed water is again hit. Further, since the pump 7 continuously sprays water into the tank 2, the water in the tank 2 is stirred by the water supplied from the pump 7. By this impact, the gas retained in the mixing chamber 22 is mixed with the water 1 1 . By mixing air with water, it is possible to produce a gas mixed water containing large bubbles in water. Next, the water in the mixing chamber is sheared by agitating the water in the mixing chamber 22. Shear-breaking force is applied to large bubbles mixed in water. The shearing force splits large bubbles into fine bubbles. By splitting the large bubble into fine bubbles, the gas becomes easily dissolved in the water. The knot and fruit air are dissolved in water, whereby the gas is dissolved in water. Further, by stirring the water in the mixing chamber 23 1361111 2 2, the air concentration distribution dissolved in water is substantially uniform. As a result, the air in the mixing chamber 22 is more easily dissolved in water. Next, the gas-dissolved water containing the bubbles is sent to the first sub-separation chamber 23 1 via the communication path 2 6 P. The gas-containing/packaged gas dissolved in water from the mixing chamber 2 2 to the first sub-separation chamber 2 3 1 further dissolves the fine bubbles. Next, the gas-dissolved water is maneuvered upward by the baffle plate 29 and the guide plate 29L. Further, the guide plate 2 9 L blocks the gas-dissolved water from forming a vortex in the first field J knife to be 2 3 1 . Next, when the gas-dissolved water is retained in the first sub-separation chamber 23, the water level of the first sub-separation chamber 213 reaches the upper end of the baffle 29. When the water level reaches the upper end of the baffle 2 9 , the gas dissolved water exceeds the upper end of the baffle 2 g and flows through the communication path 2 9 P to the second sub-separation chamber 2 3 2 . More specifically, when the water level reaches the upper end of the baffle plate 29, the gas-dissolved water is divided by the extension plate 2 9 U of the baffle plate 29, and flows to the second sub-separation chamber 2 3 2 via the communication path 2 9 p. At this time, the gas dissolved water flowing through the communication path 2 9 P is exposed to the space in the upper portion of the first sub-separation chamber 2 3 1 and the second sub-separation chamber 2 3 2 . Thereby, the gas containing a large amount of bubbles dissolves the water, and the bubbles are separated by being exposed to the space in the upper portion of the separation chamber 2 31 and the second separation chamber 2 3 2, and are separated into a liquid in which the gas is dissolved, and the air. . Then, the separated bubbles are integrated with the gas remaining in the upper portion of the first sub-separation chamber 2 2 1 , and air is retained in the upper portion of the first sub-separation chamber 2 3 i and the 24th sub-separation chamber 2 3 2 . Further, since the gas dissolved water is branched by the extension plate 2 9 U of the baffle plate 29, the second sub-separation chamber 2 is prevented from flowing from the first-second separation chamber 213 to the second sub-separation chamber 2 3 2 . The upper part of 3 2 produces a vortex with the dissolved water of the gas. Thereby, the gas-dissolved water containing bubbles which flows into the second sub-separation chamber 2 3 2 is not disturbed by the eddy current, and is separated into gas and gas-dissolved water. Further, since the guide plate 29L and the extension plate 29u prevent the formation of eddy currents, it is possible to prevent the outflow of large bubbles due to the eddy current. The gas-dissolved water flowing to the second sub-separation chamber 2 3 2 flows in a rectified state by the rectifying plate 2 3 2 U, and the flow direction is directed downward. As a result, the gas dissolved water flowing to the second sub-separation chamber 2 3 2 flows to the liquid outflow pipe 8 b via the liquid outflow port 8. Here, since the cross-sectional area of the liquid outflow port 8 is set to be less than 1/5 of the sectional area of the second sub-separation chamber 2 3 2, the gas dissolved water of the second sub-separation chamber 2 3 2 has a relatively large flow to: - ' l The oxygen flow rate of the outlet 8 is slower. This slow flow rate does not prevent the floating of the bubbles contained in the dissolved water of the gas. Further, the gas-dissolved water flowing to the liquid outflow line 8b is as shown in Fig. 16, and is provided with a flow direction along the longitudinal direction of the liquid outflow line 8乜 by the baffle plate 8c. Further, the baffle 8 is blocked, and the gas-dissolved water in the liquid outflow line 8b is vortexed. Therefore, even when fine bubbles are present in the gas-dissolved water, it is difficult to generate large bubbles by the integration of the fine bubbles, and it is possible to suppress the mixing of the A-type bubbles in the crude cold-dissolved water. Flowing through the liquid outflow line 8: the gas dissolves the water, and is transported from the liquid discharge port 4 〇2 to the bath through the liquid discharge port 4 〇2 which acts as a part of the circulation flow path. 〇0 is transferred: to the A tank 9 0 Q The gas dissolved in water is exposed to the atmosphere, and the air dissolved in the water of the gas-dissolving water towel produces fine emulsions. The fine bubbles stay in the water due to the fineness. In this way, the hot water containing fine bubbles is supplied to the bath or the like. On the one hand, the air which is not dissolved in the water in the tank 2 is separated by the bubble floating tank 2, and the gas bubbles lag with the gas remaining in the upper portion of the tank, and is retained in the first sub-separation chamber 2 3 1 and The air in the upper portion of the second sub-separation chamber 2 3 2 is sent via the return line 丄 2 to the ejector 17 . In detail, in the operation of the air-dissolved water generating apparatus 1, the pump 7 continuously supplies water to the tank 2 via the water supply line 5, the ejector 17 and the liquid inflow port 8. The water sent from the pump 7 to the mixing chamber 22 by the ejector 7 generates pressure on the empty ammonia Λ4. The pressure difference between the air inflow port 14 and the air 3 draws the air remaining in the upper portion of the tank 2 into the return pipe 12 . The air sucked into the return line 丄2 is sent to the ejector 17 via the air = two inlets 14. In this way, the air remaining in the first sub-separation chamber 2 3 丄 and the _ sub-separation chamber 2 3 2 is transported to the ejector i 7 defined as: the return line 12 and the discharge path. . '", the air is sent to the spray 26. The air of the air becomes a bubble, and is again ejected from the pump to the mixing chamber 22. In terms of the water, the water continues to be ejected from the pump 7 to the mixing chamber. The dissolved water flows to the liquid outflow port 8, and the air releases the chamber 100. The flow to the air release heart 〇 = :=2 is pushed up to the top. The buoy 102 is: = the open position r between the cylinder barrel 101 is disposed. In the case, if there is ... in the first step, the upper part of the sub-separation chamber 2 3 2 enters a work-cutting, the first-stage separation chamber 2 _ ξ ^ 9 Q 〇, 丄/, Le Yitian 1J points one 2 3 2 The water level is lowered. Then, the water level of the first sub-dividing room 2 3 2 is located in the air in the tank through the opening 103...f. The air in the tank is via the air = ::: r. The part will be properly recirculated! The helium dissolved water is generated by the split 1 with - 2 =:: the air from the upper part of the chamber 2 3 2 is transported to define the chamber 2: = the sputum 17. Therefore, 'stayed in the first - side split 7 rounds: the air in the upper part of the separation chamber 23·2 is mixed with the water from 5 to 2 2. Then, the water is mixed with the water 27 1361111 = water is sprayed out to the mixing chamber 2 2 , that is, the chamber 23 and the second pair The first, in the mixing chamber "n ^ 3 2 upper air again dissolved efficiency of two! Water. Thereby, it is possible to obtain an air-dissolved water generating device i configured to be highly dry-deficient in water. The lower end portion of the mixing chamber 22 forms an inflow of air: in this case, one end of the return line 12 is connected to the space σ 14 . Thereby, the water retained in the first-second separation chamber 213 and the second sub-separation chamber 233 to the second chamber 22 can be dissolved in water. The air in the upper part is again in the air and the water is formed in the water. In the separation chamber 23, the emulsion containing the pain μ spear 4 and divided into a liquid of a dissolved gas becomes difficult to cause a large-diameter bubble to flow out from the liquid. This connects the air-dissolved water generating device to "out.": stays in the bath 9 0 〇 水 藉 藉 栗 栗 栗 栗 栗 栗 栗 栗 ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ ^ mv + Μ 在 构成 构成 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附 附The upper wall of the open water dissolving water generating device i chamber 232 is inclined downward from the bottom. The picker 'empty* falls into the water to generate the aggregate 1 has air release: 28 丄 then 111 read] Π π 5 mysterious air release The valve 1 is disposed on the inclined wall 2 6 W ° The opening 1 〇 3 of the air release valve 1 is located at a position lower than the upper wall of the first separation chamber 2 3 1 of the rut. Because 'in the first sub-separation chamber 213 and the second sub-separation chamber 2 3 2 =. When the air is trapped more than the set amount, the air The air release valve 1 0 Q is released. Thereby, the set amount of air can be frequently smashed into a pair of separation chambers 2 3 丄. Therefore, the air remaining in the upper portion of the first boring tool away from the chamber 2 3 1 can be retained. It is frequently routed to the injector 1 via the return line 2. -® Further, the air release valve 100 has a cylinder bore 1 and a bore 10 2 . An opening "3 is formed at the lower end of the side of the cylinder bore 1 0 1". Therefore, the opening 103 is opened in the cylinder bore (1) direction. Therefore, when the bubble is self-flowing to the second sub-separation chamber 2 3 = the gas dissolved water floats upward, the bubble is blocked by the cylinder 1 ◦ 1 and the upper side is moved upward. The bubble located at the lower position of the cylinder barrel 1 〇 1 moves along the lower side of the cylinder α cylinder and the lower side 10 1 B, and moves to the upper side of the first sub-separation chamber _ main 丄 and the detachment chamber 2 3 2 . In this way, the force - the bubble in the separation chamber 232 of the younger brother is first moved above the first pair, the a - 〇 J knife is moved to the 2 3 1 and the second sub-separation chamber 232. When i 1 ', after 'the second pair of separation chambers 231 and the second sub-separation chamber ^ ^ ^ D ± the upper part of the production d 2 retains a set amount of air, the air passes through the opening 1 in the transverse direction J from the air The release valve 100 releases a sample to hold a set amount of air in the first and second portions of the first and second separation chambers 2 3 1 . Therefore, it is not possible to dissolve in water to dissolve. The air is again in the mixing chamber, and the separation chamber is placed above the second pair. The separation chamber is set in the air 1 and the end is set to 9 S toward the extended bubble. The dip-side dissociation dissolving the second milk release valve 1 〇 0 configuration The inclined wall 2 6 w above the first chamber 2 3 2 is defined. Therefore, the bubble moving to the second sub-separation chamber 2 3 2 in the separation chamber 213 moves along the inclined wall 260w to the upper portion of the first sub-III. Therefore, an air-dissolved water generating device 构成 configured to allow the air to be discharged from the air outlet 13 can be obtained. Further, the air-dissolved water generating device of the present embodiment has a partition wall 26 and a baffle plate 29. Below the baffle 29, a guide plate 29 L is extended from the one side 2 to the partition wall 26 and along the height of the groove 2. Therefore, the gas-containing dissolved water flowing through the first sub-separation chamber 2 3 流动 flows in the direction of the first sub-separation chamber 2 3 1 in a state where the eddy current is hard to be generated in the first sub-separation chamber 2 . Therefore, it is difficult for the large-diameter air bubbles to flow out to the side of the first chamber 2 3 2 , and the air which flows out from the liquid outflow port 8 is less likely to be mixed with the air bubbles. Further, the air-dissolved water generating device of the present embodiment is provided with an air ejector 30A and an air inflow path 301. Next, the air-dissolved water generating apparatus 1 of the present embodiment is configured to transport the sucked air through the air inflow path 301 to the water flowing into the & gas ejector 300. Therefore, the air can be pre-mixed to the water supplied to the mixing chamber 22 from the path of the spray 30 1361111. Thereby, the air-dissolved water generating apparatus 1 configured to produce the gas-dissolved water with high efficiency can be obtained. Here, the volume per unit time of the air released from the air release valve is preferably set to be more than 20% of the volume per unit time of the air contained in the water ejected from the discharge path. Further, the volume per unit time of the air released from the air release valve is preferably set to be less than 80% of the volume per unit time of the air discharged from the discharge path. Here, the gas dissolution rate is as described above, and is expressed as a product of the gas-liquid contact area and the gas concentration gradient.

Cv=KL · a · ( C * - C ) C v : dissolution rate KL : total material movement coefficient ' a : contact area C * : saturated dissolved gas concentration C: dissolved gas concentration, that is, gas dissolution rate C v Rely on the contact area α and the saturated dissolved gas concentration C + . However, Boyle's law: Pressure X volume = a certain 1361111 Therefore, when the pressure becomes large, the gas volume becomes small. On the one hand, in the law of mass action (chemical equilibrium law), (gas concentration) + (concentration of gas dissolved in liquid) is constant. Therefore, when the gas concentration becomes high, the concentration of the gas dissolved in the liquid also becomes high. That is, as well known as Henry's 1 aw, the saturated dissolved oxygen concentration of the gas in the liquid can be increased by increasing the partial pressure of the gas. In other words, the saturated dissolved oxygen concentration of the gas in the liquid can be increased by increasing the concentration and pressure of the gas. Therefore, when we first find that the mixed air flows into the liquid from the liquid inlet, the gas in the tank 2 can be dissolved in the tank 2 by actively performing the replacement of the exhaust gas in the dissolution tank 2. Considering the application of the air-dissolved water generating device 1 to the bath, the oxygen in the air is dissolved in the water, and the dissolved oxygen concentration in the water is investigated. Table 1 shows the ratio of the amount of air delivered to the tank 2 to the amount of air exhausted from the air release valve 100. That is, the ratio of dissolved oxygen concentration in water caused by adjusting the amount of exhaust of the air release valve is shown. Further, the amount of air delivered into the tank 2 and the amount of air exhausted from the air release valve 100 are converted by the amount of air discharged from the air release valve 100 and sent to the air injector 30. The ratio of the amount of gas of 0 changes. 32 [Table - Air discharge β. For example, as shown in the seventeenth and eighteenth figures, actively exhaust for 15 minutes; 1 when the enemy valve is 20 hearts, * dissolved oxygen concentration is not a gas, that is, dissolution tank 2 within the oxygen partial pressure ☆ C saturation: like Qin: in water. Earth ridge, can confirm more oxygen solubility] According to this experiment, dissolved in air

Oxygen concentration_XLi_〇-~ΛΑ,_〇ι ^~λ1^5ι 18. 5 Air release valve 1〇〇 The air exhausted per unit time i: = is determined to be via the water supply line 5 to be mixed The air side V of the air enters the air in the tank 2 by 2% per unit amount to set the gas discharge amount to more than 20% of the gas supply amount, which is fortunate; the nitrogen dissolves more in water solubility. The amount of oxygen in the liquid 5 is increased. Therefore, it is possible to generate a liquid having a sufficiently high dissolved oxygen concentration, and a specific means and method for introducing the amount of exhaust gas of the gas due to the air release valve i 导入 into the dissolution tank 2 by 2% or more of the air supply amount can be exemplified. Increase the amount of gas extracted by the gas introduction injector 3 〇33 1361111. Further, the same effect can be obtained by adjusting the shape and area of the opening of the gas removing port 35 in the air release valve ^ Q 〇. Then, the same effect can be obtained by appropriately selecting the features. Furthermore, the same effect can be obtained by combining these features. (Embodiment 2) Figs. 19 and 20 show perspective views of an air-dissolved water generating apparatus 1 according to Embodiment 1 of the present invention. In the same manner as in the first embodiment, the same reference numerals will be given to the same components, and the same configuration 2 will be omitted. The air-dissolved water generating apparatus 1 of the present embodiment includes: a tank 2, a pump 7, a return line 1, 2. an ejector 丄7 straight line 5 (not shown), a liquid outflow line 8b, and an air release valve. 1 0 0, air ejector 3 〇〇 and air inflow: 『 I 〇 义 喷射 3 3 0 0 is installed in the pump inlet 1 of the pump 7. An air supply is provided at one end of the air ejector 3 ’ , and the other end is inserted into the inside of the fixing device 2 〇 在 on the back side of the upper end of the |7 periphery. Then, the system is configured to transport the sucked air through the inflow path 30 于 to the water spray: water of 3000. Therefore, the water in the day and mouth chamber 2 2 can be premixed. Thereby, it is possible to obtain an air-dissolved water generating device 1 which is configured to efficiently produce two dissolved water. The body is also configured to flow into the air ejector 3 through the air that has been sucked in by the air stream (3):: 34, 丄111 is drawn into the air of the air inflow path 3 〇i As it moves, the air of the air flow path 3 〇1 also flows toward the pump 7. The pump 7 is cooled toward the pump 7 and the moving air. Therefore, the heat generated by the pump 7 due to operation can be dissipated. Therefore, the reduction in pump capacity can be suppressed. Further, as shown in the twenty-first embodiment, the air-dissolved water generating device 1 is preferably further provided with an air supply pipe 105. The air supply pipe i 05 has one end which is connected to the air removing hole of the air release valve ;, and the other end which is inserted inside the fixed cymbal 2 。. In this case, the air released from the air removal hole is sent to the inside of the fixed = set 2 〇 。. It is conveyed to the inside of the fixture 2 〇 产生 Air flow is generated inside the fixture 2〇〇. The pump 2 is cooled by this air flow. Therefore, with this configuration, the decrease in the force of the pump can be suppressed. Next, the above-described air-dissolved water generating device 1 is placed in a bath. The twenty-third figure shows the bath 9 〇 and the air-dissolved water generating device i disposed in the bathroom. The bath 9 〇 is adjacent to the wash yard. In the bath 9 〇. The edge of the wire side is installed. Cover 9 〇 1. § The outer cover 901 is formed to cover the surface of the washing tank side of the bath 9 〇 。. Therefore, the outer cover 9 is defined as the boundary between the wash yard and the bath. The outer cover 902 forms a storage space 9 ◦ 2 between the outer peripheral surface of the bathtub. Next, the air-dissolved water generation & 1 is placed in the storage space. Then, the pump 7 and the groove 35 2 constituting the air-dissolved water generating device are disposed in the circulation flow path, so that the ring-shaped flow path is sucked into the hot water in the bath 90 from the suction inlet 4 0 3 at one end, from the other end. The liquid discharge port h4〇2 is ejected into the bath 9 ,, and is configured to eject the gas dissolved water supplied from the liquid outflow port of the air-dissolved water generating device i from the liquid discharge port 4 〇 2 into the bath. Fine bubbles are supplied in the bath 90000. ~ In this case, it is preferable to provide the soundproof material 9 〇 3 between the outer cover 910 and the air-dissolved water generating device, or on the side of the bath 90 side of the outer cover 9 〇 1 . Thereby, it is possible to prevent the sound emitted from the air-dissolved water generating device 1 from leaking out of the outside during operation. The above description is only a preferred embodiment of the present invention, and is not intended to limit the scope of the invention. Therefore, the equivalent technical changes of the present invention and the contents of the drawings are included in the protection of the present invention. Within the scope, it is combined with Chen Ming. BRIEF DESCRIPTION OF THE DRAWINGS The first drawing shows a perspective view of a basic structure of an air-dissolved water generating apparatus of the present invention. The second figure is a schematic view of a side cross section of the basic structure of the water-forming water formation in the present day. The third drawing is a schematic view of a side cross section of the injector of the present invention. The fourth figure is a side cross-sectional view showing the basic structure of the air-dissolved water generating apparatus of the present invention. Fig. 5 is a schematic view showing a side section 36 1361111 of the air-dissolved water generating apparatus of the present invention. Fig. 6 is a perspective view of a part of the groove of the first embodiment of the present invention. • Fig. 7 is a side view showing the apparatus for generating dissolved air in the first embodiment of the present invention. Figure 8 is a side cross-sectional view taken along line A - A of the seventh diagram of the air-dissolved water generating apparatus according to the first embodiment of the present invention. Figure 9 is a side cross-sectional view taken along the line B-B in the seventh diagram of the air-dissolved water generating apparatus according to the first embodiment of the present invention. Figure 11 is a side cross-sectional view showing an air-dissolved water generating apparatus according to Embodiment 1 of the present invention. Fig. 11 is a perspective view showing the air-dissolved water producing apparatus of the first embodiment of the present invention. Fig. 12 is a rear view showing the air-dissolving apparatus of the first embodiment of the present invention. Fig. 13 is an exploded perspective view showing a part of the groove of the first embodiment of the present invention. Fig. 14 is a side sectional view showing the air release valve of the first embodiment of the present invention. The fifteenth embodiment is a partial exploded perspective view of the lower portion of the tank according to the first embodiment of the present invention. Fig. 16 is a partially enlarged sectional view showing the lower portion of the groove in the first embodiment of the present invention. Fig. 17 is a graph showing a state in which the dissolved oxygen concentration is increased when the exhaust ratio of the air 37 1361111 > glutathion water generating apparatus according to the first embodiment of the present invention is changed. Fig. 18 is a graph showing the relationship between the exhaust ratio of the air-dissolved water generating apparatus and the amount of increase in dissolved oxygen concentration in the first embodiment of the present invention. Fig. 19 is a perspective view showing the air-dissolved water producing apparatus of the second embodiment of the present invention. Fig. 20 is a partially enlarged cross-sectional view showing the air-dissolved aquatic growth apparatus according to the second embodiment of the present invention. In the eleventh embodiment, a partially enlarged cross-sectional view of the air-dissolved water generating device in the modified state of the second embodiment of the present invention is shown. Fig. 12 is a schematic view showing the relationship between the air-dissolved water generating apparatus and the bath in the first embodiment of the present invention. The twelfth figure shows a schematic view of the arrangement of the air-dissolved water generating device of the present invention in a bathroom. [Main component symbol description] Lu 1 air dissolved water generator 2 tank 2 L tank lower 2 U tank upper 3 tank bottom · 4 Liquid inlet 5 Water supply line 38 1361111 5 1 First end 6 Liquid • 7 Pump • 71 Pump inlet 72 Pump outlet: 8 Liquid outflow 8b Liquid outflow line 8 c Baffle β 9 Line 1 1 Water 1 2 Return line 1 3 Air flow outlet 14 Air flow inlet 1 6 Engagement section 1 7 Ejector • 171 First end 17 2 Second end 1 8 gas 2 0 U, 2 0 L Flange 2 2 Mixing chamber • 2 3 Separation chamber 231 First sub-separation chamber 232 Second sub-separation chamber 2 3 2 U rectifying plate 1361111 2 6 partition 2 6 P connection 2 6 S side 2 6W inclined wall 2 9 baffle 2 9 L guide 2 9 P connection 2 9 S facing one face 2 9 U extension plate 100 air release valve 101 cylinder tube 1 0 1 B below 10 2 buoy 10 3 opening 104 air removal hole 10 5 air supply pipe 200 fixing device 2 0 1 flange 300 air injector 301 air inflow path 302 air supply port 4 0 0, 4 0 1 pipe 402 liquid discharge port 403 suction Import 1361111 9 0 0 Bath 9 0 1 Cover 902 Storage space 903 Soundproof material 9 5 0 Bathroom C controller

Claims (1)

1361111 VII. Patent application scope: 1 type of airless, glutathion water generating device, which is characterized by white people. - Tank, which has a liquid inflow port and a liquid outflow port ':,... : a spouting path connecting the liquid stream The inlet can be connected to the water supply source 丨 日 又 又 又 又 槽 槽 槽 槽 槽 槽 槽 槽 槽 槽 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷 喷The inside of the tank becomes a mixing chamber*, and the mixing chamber and the separation chamber are connected to each other, and the configuration (4) forms a continuous liquid inlet, which is disposed in the mixing chamber, and the black liquid outlet is disposed in the separation chamber, 5 The gas is dissolved from the mixing chamber via the gas, and (4) the gas "dissolves the two bubbles, and the gas path from the liquid flow outlet to the gas leaving the dead portion of the y separation chamber" is retained in the separation chamber. The upper part is out of the room. The basket is sent to the spouting device 2 r == the first end: the production, the transfer tube: one end of the outlet outlet 'device, wherein the lower part of the mixing chamber :;;: The gas is strictly dissolved to form the connection to the air c, 4, Such as _ 凊 patent range 褽 , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , The groove is connected, and the first end 42 of the first end of the 贫4 emitter is formed with an air flow inlet, and the inside of the road is provided with a flow path, and the two cross-sectional areas are formed to be connected to the air flow inlet than the pipeline end 5. As claimed in claim i, the apparatus, wherein the ± dioxygen dissolved water in the separation chamber generates f, which is formed from the ejection path to generate water from the t::f solution to the mixing chamber , 匕 匕 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有 有More than %. Water pounds 3 5 Hai air per single.. Bit 7, as claimed in the scope of the third item & device 'where the separation room is to use the plate to dissolve water to form two separation chambers, Jing Li J knife brother a pair The separation chamber and the ##海播板系 are formed as 'the upper and lower sides of the baffle are separated, and the first sub-point is formed by the wrong connection. Pulling from the upper surface of the trough, and transporting from the mixing chamber::f a pair of separation chambers connected to the first sub-separation chamber; the packaged gas dissolves water through the first, the cool knight mountain first a secondary separation chamber, 8 2'; ^^ a lower end of the second secondary separation chamber. The apparatus, wherein the tank has Sd: the air dissolved water is described to form the second secondary separation palace; | 22 is the upper wall of the upper end of the chamber The wall, the wall system is defined by the inclined wall, the inclined side is upright and the inner wall is connected continuously and inclined to the lower side. 2 the return line is connected to the first side The air-dissolved water-forming water generating device described in the above-mentioned tank device of the separation chamber has a gas release valve 丄妁1111 valve which is released from the cylinder tube with the buoy inside. The valve has a lower end positioned lower than the second sub-separation of the upper wall of the trough, and an upper end is formed with an opening at a lower end portion of the side surface of the cylinder bore. The air-dissolved water generating device according to Item 7, wherein the reading plate and the partition wall have opposite directions, and a guide plate is formed on either of the baffle plate or the partition wall, and the partition plate or the partition wall The other side is protruded and extends in the height direction of the groove; J. The air-dissolved aquatic Hi gas plate described in the seventh aspect of the patent is in the center of the upper end of the gas plate, and has an extension plate extending toward the upper surface. /h again, 1, 2, as described in the scope of the patent application, the space = = device 'where the rectifying plate is provided from the upper side of the sub-chamber. The rectifying plate is formed in a bath having an air-dissolved water generating device, and is characterized in that it has a bath of the air-dissolved water generating device, and is characterized in that: The device is placed in the circulation flow path. ς斤以;%之:\进= ^ ^ ^ ^He sent out, in the tank, hunting from the liquid outlet 彳ϋ y y body dissolved water and the fine bubbles from the liquid discharge mouth to the pound; In the case of a bathroom with an air-dissolved water generating device, the basin is equipped with an air-dissolved water generating device as disclosed in the scope of the patent application, item i to 丄-, which has: a bath: a wash, a field Provided adjacent to the bath; a casing for covering the side of the washing machine side of the bath, 44 1361111, thereby forming a storage space between the outer cover and the bath, and the trough system is configured to dissolve the air The device is arranged and the circulation flow path is sucked into the bath from the suction inlet of the one end portion, and the liquid discharge port at the other end is ejected into the bath, and the gas supplied from the liquid D is used to dissolve the water. The fine bubbles are discharged from the liquid to the bath, and the outer cover defines a boundary between the washing field and the bath. The air dissolved water generating device is disposed in the storage space, and the air dissolved water generating device and the outer cover Between the defense