JP2008104938A - Oxygen-dissolved water producer and oxygen-dissolved water producing apparatus - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To easily obtain highly concentrated oxygen-dissolved water at a low running cost by simplifying a production structure of the oxygen-dissolved water. <P>SOLUTION: Multiple partition walls 25 for producing oxygen-dissolved water droplets, having multiple water droplets producing through-holes dispersedly disposed, for producing oxygen-dissolved water droplets by mixing oxygen gas released from a gas intake port into dropping water released from a water intake port, are dispersedly disposed in an oxygen-dissolved water producing chamber from upper to lower part sequentially with given spaces. The hole diameters of the partition walls 25 for producing oxygen-dissolved water droplets installed in the lower part in the chamber are set smaller than those of the partition walls 25 for producing oxygen-dissolved water droplets installed in the upper part. An oxygen-dissolved water cluster conversion part 26 packed with multiple far-infrared radiation materials is provided, and an oxygen-dissolved water cluster conversion part 31 with the outer face of the side wall of a case coated with the far-infrared radiation material, is provided. <P>COPYRIGHT: (C)2008,JPO&INPIT

Description

  The present invention relates to an oxygen-dissolved water generator, particularly an oxygen-dissolved water generator, capable of generating natural water such as ground water, tap water, and rainwater into high-concentration oxygen-dissolved water.

  In general, to promote plant growth, improve quality, and increase yields, the roots must be supplied with the required amount of oxygen. However, groundwater is usually used when cultivating horticulture, etc. using a large amount of water for hydroponics, drip cultivation, etc., but the amount of dissolved oxygen required for plant growth compared to surface water etc. Less is. Therefore, as a method for dissolving oxygen in water, air aeration, hydrogen peroxide replenishment, pure oxygen aeration, use of an oxygen-enriched film, and the like are performed.

  However, both methods have problems such as a complicated structure for generating oxygen-dissolved water and high running costs.

  The present invention has been made paying attention to such conventional problems, and has a simple structure for generating oxygen-dissolved water, a high-concentration oxygen-dissolved water that is easy to obtain, and an oxygen-dissolved water generator that is low in running cost. An object is to provide an oxygen-dissolved water generator.

  In order to achieve the above object, an oxygen-dissolved water generator according to the present invention uses a case having upper and lower walls and side walls, a water inlet for taking water from the outside, and oxygen gas into a wall near the upper wall. Provided with an external gas intake, the upper space inside the case is mixed with oxygen gas to form an oxygen-dissolved water generating chamber that generates oxygen-dissolved water, and the lower space stores oxygen-dissolved water An oxygen-dissolved water outlet for taking out oxygen-dissolved water to the outside is provided on the wall near the lower wall of the water reservoir.

  Then, pressurized water is supplied from the outside to the water intake of the oxygen-dissolved water generation chamber, and oxygen gas having a pressure higher than the water pressure of the pressurized water is supplied from the outside to the gas intake. An oxygen-dissolved water droplet forming partition wall in which a large number of water droplet forming through holes are formed by mixing oxygen gas discharged from the gas intake port with falling water discharged from the water intake port to form oxygen-dissolved water droplets. Disperse and arrange a plurality at a predetermined distance sequentially from the top to the bottom, and the hole diameter of the oxygen-dissolving water droplet forming partition wall installed below is smaller than the hole diameter of the oxygen-dissolving water droplet forming partition wall installed above the plurality. To do.

  In addition, an oxygen-dissolved water cluster converter filled with many far-infrared radiation materials is installed in the oxygen-dissolved water reservoir, and the upper part of the cluster converter is converted to the water level fluctuation part of the oxygen-dissolved water, and the lower part is converted from the cluster converter. It is preferable to use a water supply unit for storing small-cluster oxygen-dissolved water.

Further, it is preferable to provide an oxygen-dissolved water cluster conversion part in which the far-infrared radiation material is coated on the outer surface of the side wall of the case.
Further, graphite silica may be used as the far-infrared radiation material.

  The oxygen-dissolved water generator according to the present invention may be provided with the oxygen-dissolved water generator.

  The oxygen-dissolved water generator of the present invention supplies pressure water from the outside, and further supplies oxygen gas having a pressure higher than the water pressure of the pressure water from the outside, thereby collecting the falling water released from the water intake. It is dispersed on the upper surface of the partition wall for forming oxygen-dissolved water droplets disposed above by blowing it off with oxygen gas released from the inlet, etc. The contact area between water and oxygen gas can be increased by passing through each through hole. Therefore, oxygen gas can be mixed well into water, and when dropped from each through hole, a large amount of oxygen is dissolved and an oxygen-dissolved water droplet containing a large amount of negative ions can be easily formed.

  Then, the oxygen-dissolved water drops fall to the upper surface of the oxygen-dissolved water droplet forming partition wall arranged below, but oxygen gas can be mixed into the water in the same way. It is possible to easily form oxygen-dissolved water droplets containing a large amount of negative ions. At that time, in the oxygen-dissolved water generating chamber, a plurality of oxygen-dissolved water droplet forming partition walls with a large number of water droplet forming through holes are dispersed and arranged at a predetermined distance sequentially from the upper side to the lower side, and installed above them. By making the hole diameter of the partition wall for forming the oxygen-dissolving water droplets below the hole diameter of the partition wall for forming the oxygen-dissolving water droplets, the water droplets are made smaller in the middle of the fall and contact with oxygen gas. The area can be increased. Therefore, the generation structure of oxygen-dissolved water is simplified, and the generation structure makes it easy to mix oxygen gas into water, easily generate negative ions, dissolves a large amount of oxygen, and contains a large amount of negative ions. High-concentration oxygen-dissolved water can be easily generated, and the running cost is reduced.

  In addition, an oxygen-dissolved water cluster converter filled with many far-infrared radiation materials is installed in the oxygen-dissolved water storage chamber, and the upper part of the cluster converter is the water level fluctuation part of the oxygen-dissolved water, and the oxygen dissolution of small clusters converted from the lower part. By using a water supply unit that stores water, a large amount of oxygen is dissolved, far-infrared rays are applied to oxygen-dissolved water containing a large amount of negative ions, and the oxygen-dissolved water cluster is reduced, making it easy to absorb from the roots of plants. Thus, it is possible to obtain small-cluster oxygen-dissolved water suitable for plant growth. In addition, the oxygen solubility can be increased by reducing the clusters. Even if the water level of the oxygen-dissolved water storage chamber is changed from the oxygen-dissolved water cluster conversion section to the water level fluctuation section, the oxygen-dissolved water is constantly in the cluster conversion section filled with many far-infrared radiation materials. Is satisfied, large bubbles of oxygen gas are not obstructed by the far-infrared radiation material and do not pass to the lower water supply section. Therefore, the oxygen-dissolved water supplied from the outlet does not include large bubbles of oxygen gas that are not in a dissolved state, and the utilization rate of oxygen gas can be increased.

  In addition, by providing an oxygen-dissolved water cluster conversion part coated with a far-infrared radiation material on the outer side wall of the case, the far-infrared light generated by the oxygen-dissolved water cluster conversion part provided outside is passed through the side wall, When applied to oxygen-dissolved water, the clusters can still be made smaller to form small-cluster oxygen-dissolved water.

  In addition, by using graphite silica as the far-infrared radiation material, strong far-infrared radiation that the graphite silica radiates at a room temperature of 40 ° C. or less is applied to the oxygen-dissolved water to reduce the cluster, and the small-cluster oxygen-dissolved water. Can be.

  Moreover, by providing such an oxygen-dissolved water generator, an oxygen-dissolved water generator can be easily manufactured.

The best mode for carrying out the present invention will be described below with reference to FIGS.
FIG. 1 is a front view showing an oxygen-dissolved water generator of an oxygen-dissolved water generator to which the present invention is applied, and FIG. 2 is a block diagram showing the configuration of the oxygen-dissolved water generator. The oxygen-dissolved water generator 1 includes an oxygen-dissolved water generator 3 in the oxygen-dissolved water generator 2 as a center for generating oxygen-dissolved water. Then, in order to constitute the case 4 of the oxygen-dissolved water generator 3, as its side wall member 5, for example, a plastic such as vinyl chloride having an outer diameter of 216 mm, an inner diameter of 194 mm, and a height of 700 mm as shown in FIGS. A cylindrical body is used. Further, as the upper and lower lids 8 and 9 for covering the upper and lower openings 6 and 7, respectively, for example, a substantially square plate having the same size as shown in FIGS. 5 and 6 and a side length of 250 mm is used. Then, the circular center portions 10 and 11 of the upper and lower lids 8 and 9 are used as the upper and lower wall members of the case 4, and the surrounding portions are connected to the side wall member 5 to integrally join the upper and lower wall members to form the case 4. It can be made into the collar parts 12 and 13.

  Therefore, the central portion 10 of the upper lid 7 is provided with a through-hole having a large diameter as a water intake 14 at the center for taking water into the case 4 from the outside, and oxygen gas is supplied from the outside away from the water intake 14. A through hole having a small diameter to be taken into the case 4 is provided as the gas inlet 15. Then, three support rods 16 (16a, 16b, 16c) each having a length of 400 mm, for example, are spaced apart from each other by three equal distances on the lower surface of the central portion 10 of the upper lid 8 so as to be They are arranged in a triangular shape and project so as to be perpendicular to the lower surface. In addition, a circular groove 17 is provided on the outermost part of the lower surface of the central portion of the upper lid 8 so as to surround the outside of the gas intake port 15 and the support rod 16 with the water intake port 14 as a center. An O-ring 18 is fitted and disposed. Further, coupling through holes 19 (19a,... 19d) are provided in the vicinity of each of the four corners of the coupling flange 12 of the upper lid 8.

  In addition, the oxygen-dissolved water that takes out oxygen-dissolved water from the case 4 to the outside at the central portion 11 of the lower lid 9 in the same position as the water intake 14 and the gas intake 15 provided in the central portion 10 of the upper lid 8. A connection port 22 is provided for each of the outlet 20 and the oxygen-dissolved water level detection tube 21. In addition, on the upper surface of the central portion 11 of the lower lid 9, the three support rods 23 (23a, 23b, 23c) is separated from the oxygen-dissolved water outlet 20 and arranged in a regular triangle shape so as to project perpendicularly to the upper surface. In addition, on the outermost part of the upper surface of the center part of the lower lid 9, the tube connection port 22 is supported around the water intake 20 so as to correspond to the circular groove 17 and the O-ring 18 provided in the upper lid 8. A circular groove 56 surrounding the outside of the installation place of the rod 23 is provided, and an O-ring 57 serving as a seal member is fitted and disposed therein. Further, in the vicinity of the four corners of the coupling collar 13 of the lower lid 9, the coupling through holes 24 (24 a) are arranged corresponding to the same positions as the coupling through holes 19 provided in the coupling collar 12 of the upper lid 8. ... 24d) are provided.

  Then, the upper space inside the case 4 is mixed with oxygen gas to form an oxygen-dissolved water generating chamber for generating oxygen-dissolved water, and the lower space is used as an oxygen-dissolved water storage chamber for storing oxygen-dissolved water. Therefore, a water droplet formation through hole (not shown) that forms oxygen-dissolved water droplets by mixing oxygen gas released from the gas intake port 15 with falling water discharged from the water intake port 14 into the oxygen-dissolved water generating chamber. A plurality of oxygen-dissolved water droplet forming partition walls 25 distributed in a large number are dispersed and disposed sequentially at a predetermined distance from the upper side to the lower side, and from the hole diameter of the oxygen-dissolved water droplet forming partition wall 25 installed thereabove, The hole diameter of the partition wall 25 for forming oxygen-dissolved water droplets installed below is reduced.

  At this time, as the oxygen-dissolved water droplet forming partition wall 25 distributed and arranged in the oxygen-dissolved water generating chamber, for example, three metal discs each having a diameter slightly smaller than the inner diameter of the side wall cylinder 5 and having a thickness of about 1 mm. Use. In addition, the oxygen-dissolved water droplet forming partition wall 25a disposed on the upper side is provided with a large number of water droplet forming through holes having a diameter of 5 mm by punching on the entire surface, and the adjacent holes are dispersedly arranged. Further, in the oxygen-dissolved water droplet forming partition wall 25b arranged in the middle, a water droplet forming through hole having a diameter of 3 mm is similarly provided on the entire surface by punching. In addition, a water droplet forming through hole having a diameter of 1 mm is similarly provided on the entire surface of the partition wall 25c for forming oxygen-dissolved water droplets arranged at a lower position by punching. Note that each hole has a truncated cone shape, and the diameter is gradually increased from the upper side to the lower side to improve drainage and facilitate formation of water droplets.

  Then, with respect to the three support rods 16 projecting from the lower surface of the upper lid 8, the upper, middle and lower oxygen-dissolving water droplet forming partition walls 25 from the lower surface are sequentially separated from each other by 100 mm in order and horizontally Install and distribute. In addition, an oxygen-dissolved water cluster converter 26 filled with a large number of far-infrared radiation materials is provided in the oxygen-dissolved water reservoir, and the oxygen-dissolved water cluster converter 26 and an oxygen-dissolved water droplet forming partition wall 25c disposed below. The water level fluctuation part 27 that enables the fluctuation of the water level of the oxygen-dissolved water that stores the portion between the two, and the water supply part 28 that stores the small-cluster oxygen-dissolved water converted from the lower part of the oxygen-dissolved water cluster conversion part 26. The attachment positions of the upper, middle, and lower oxygen-dissolved water droplet forming partition walls 25 can naturally be changed.

  Therefore, as a case for forming the oxygen-dissolved water cluster conversion portion 26, for example, a cylindrical car body 29 having a diameter slightly smaller than the inner diameter of the side wall cylinder 5 and a height of 150 mm is used. At that time, for example, a punching metal having a hole diameter of 5 mm is used as the upper and lower wall members of the car body 29. Then, the car body 29 is attached to the central portion of the three support rods 23 projecting from the upper surface of the lower lid 9. As the far-infrared radiation material inside the car body 29, for example, graphite silica powder and silica stone powder are used. A large number of ceramic balls 30 sintered together are filled. In addition, an oxygen-dissolved water cluster converter 31 covered with, for example, graphite silica powder is provided as a far-infrared radiation material on almost the entire outer peripheral surface of the side wall cylinder 5.

長野県下伊那郡喬木村６７１４番地１ 松島光陽化学株式会社提供 This graphite silica (scientific name) is also called silica black, and is produced from the upstream of Kaminokuni Tenkawa, Hiyama-gun, Hokkaido. As shown in Table 1, it contains abundant natural minerals, especially silica, and is made of iron, etc. at room temperature (40 ° C or below). It is an ore that emits a large amount of strong far-infrared rays through metal. Therefore, when far-infrared rays emitted from graphite silica are applied to water, the water cluster (molecular group) can be efficiently decomposed and converted into small cluster water.

Provided by Matsushima Koyo Chemical Co., Ltd. 6714-1 Kashiwagi-mura, Shimoina-gun, Nagano

  When assembling the oxygen-dissolved water generating unit 2, first, the upper opening 6 of the side wall cylinder 5 is closed with the upper lid 8, and the three supports projecting downward from the lower surface of the upper lid 8 in the upper space of the cylindrical body 5. An assembly of the rod 16 and the three oxygen-dissolved water droplet forming partition walls 25 is inserted, and the lower opening 7 is closed with the lower lid 9, and the lower surface of the cylindrical body 5 is inserted into the lower space of the lower lid 9. An assembly of the three support rods 23 projecting upward and the oxygen-dissolved water cluster converter 26 is inserted. Then, four connecting rods 32 (32a,... 32d) having a length of, for example, 1000 mm provided with screw grooves are used, and these connecting rods 32 are provided near the four corners of the upper and lower lids 8 and 9. The upper and lower lids 8 and 9 are joined to the side wall cylindrical body 5 by inserting the corresponding through holes 19 and 24 respectively and using fastening members such as nuts 33 and washers 34. Then, at the same time as completing the case 4, the oxygen-dissolved water generator 3 having an internal structure in the case 4 is completed, and the lower portions of the four connecting rods 32 protrude below the oxygen-dissolved water generator. The generator 3 can have four legs.

  Therefore, in order to support the oxygen-dissolved water generator 3, a support base 35 shown in FIG. 7 is used. The support base 35 has a horizontal portion and a vertical portion. For example, four L-shaped cross-sectional members 36 having a length of 400 mm and a width of 40 mm are used. Then, between the two vertical members 36a, 36b arranged in parallel apart from each other in the left-right direction, the two horizontal members 36c, 36d arranged in parallel apart from each other in the front-rear direction are spanned and joined, and each of the horizontal members 36c is connected. The support base 35 is formed by providing two coupling through holes 37 (37a,... 37d) in the vicinity of the center of 36d. Then, each front end portion of the supporting foot that supports the oxygen-dissolved water generator 3 is inserted into each corresponding through hole 37 of the supporting base 35, and using a fastening coupling member such as a nut 33 and a washer 34, the supporting base is used. 35 can be firmly fixed. In use, the vicinity of the lowermost portion of the support base 35 may be embedded in concrete, for example, and the center line of the oxygen-dissolved water generator 3 may be set up vertically.

  The other end portion of the bent pipe joint 38 having an end portion for connection to the water supply pipe at the water intake port 14 of the upper lid 8 for connecting the oxygen dissolved water generator 3 to the generator 3 and external piping. And the other end of the three-way pipe joint 39 having a connection end with a ball valve to the oxygen gas pipe is connected to the gas inlet 15. Further, the other end of the bent pipe joint 40 having an end for connecting to the water supply pipe is connected to the water outlet 20 of the lower lid 9, and the end for connecting to the water level detecting tube 21 is further connected to the connection port 22. The other end of the three-way pipe joint 41 is connected. For example, a water-resistant polyurethane tube is used as the water level detection tube 21, and the tube 21 is connected to the remaining one end of the three-way pipe joint 39 and the tube connection end of the three-way pipe joint 41, thereby generating an oxygen-dissolved water generator. Along the line 3, pipe vertically around it. Then, the oxygen dissolved water production | generation part 2 is completed. The remaining one end of the three-way pipe joint 41 is provided with a ball valve, and the valve is opened during drainage.

  A water supply pipe 42, an oxygen gas pipe 43, a water supply pipe 44, and the like are connected to the oxygen dissolved water generating unit 2. For example, groundwater is used as a water source, and a pump 45 that pressurizes and sends water to the water supply pipe 42, a filter 46 that removes iron, manganese, sand, and the like contained in the water, and a check valve 47 are provided. It feeds into the oxygen dissolved water generator 3. At this time, as the pump 45, for example, an electric pump having a water supply pressure of 2 to 3 kg / square cm and a discharge amount of 30 to 40 liters per minute is used. The groundwater temperature is 16-17 ° C for shallow wells and 13-14 ° C for deep wells.

  Further, for example, a 30 kg oxygen cylinder 48 is used as an oxygen gas source, and the oxygen gas pipe 43 is provided with a regulator 49 such as a pressure reducing valve and an electromagnetic valve 50, and oxygen gas having a high pressure is fed into the oxygen dissolved water generator 3. At that time, the gas pressure of the oxygen cylinder 48 is reduced by the regulator 49 and adjusted to a pressure higher than the water pressure, for example, 1 kg / square cm. The electromagnetic valve 50 is provided with a controller 52 with a water level sensor 51 such as an optical sensor for valve opening / closing control. Then, when the amount of oxygen in the oxygen-dissolved water generating chamber is small, the amount of water supplied from the water supply pipe 42 increases, and when the amount of oxygen is large, the amount of water supplied decreases. Therefore, the water level in the water level detection tube 21 is interlocked with the water level in the water level detection tube 21 that the water level of the oxygen-dissolved water stored in the oxygen-dissolved water generator 3 has been set, for example, has risen to the dotted line position. Then, a signal is sent from the controller 52 to open the solenoid valve 50. Therefore, the range of water level fluctuation can be kept constant. The controller 52 can be easily made by combining commercially available products.

  When in use, pressure supply water is supplied to the oxygen-dissolved water generator 3 from the outside, and when oxygen gas having a pressure higher than the water pressure of the pressure supply water is supplied from the outside, falling water discharged from the water intake 14 is discharged. It is dispersed on the upper surface of the oxygen-dissolved water droplet forming partition wall 25a disposed at the upper position by blowing it off with oxygen gas discharged from the gas intake port 15, and collides with the upper surface of the partition wall 25a. The contact area between water and oxygen gas can be increased by passing through a large number of dispersed through holes. Therefore, oxygen gas can be mixed well into water, and when dropped from each through hole, a large amount of oxygen is dissolved and an oxygen-dissolved water droplet containing a large amount of negative ions can be easily formed.

  Then, each oxygen-dissolved water droplet falls to the upper surface of the oxygen-dissolved water droplet forming partition wall 25b disposed in the middle, but oxygen gas can be mixed in the water in the same manner. Further, a large amount of oxygen can be dissolved, and an oxygen-dissolved water droplet containing a large amount of negative ions can be easily formed. The same applies to the oxygen-dissolved water droplet forming partition wall 25c disposed in the lower part. At that time, the diameter of each through hole of the partition wall 25 for forming the oxygen-dissolved water droplets, which is installed from the upper side, the middle level, the lower side and the lower side from the upper side, is sequentially reduced, so that it is installed at a predetermined location in the middle of the fall. Each time it passes through each partition wall 25, the water droplets can be made smaller in order to increase the contact area with oxygen gas. Therefore, the generation structure of oxygen-dissolved water is simplified, and the generation structure makes it easy to mix oxygen gas into water, easily generate negative ions, dissolves a large amount of oxygen, and contains a large amount of negative ions. High-concentration oxygen-dissolved water can be easily generated, and the running cost is reduced. Even if each through hole provided in the partition wall for forming oxygen-dissolved water droplets is made small, the size of the water droplets to be formed is not uniform, and a large number of small water droplets cannot be formed.

  If an oxygen-dissolved water cluster converter 26 filled with a large number of ceramic balls 30 mainly made of graphite silica is provided in the oxygen-dissolved water storage chamber for storing the oxygen-dissolved water thus generated, a large amount of oxygen is dissolved. Then, the far-infrared rays generated in the ceramic ball 30 are applied to the oxygen-dissolved water containing a large amount of negative ions, so that the cluster of the oxygen-dissolved water can be reduced. Moreover, when the cluster is made smaller, the oxygen solubility can be increased. Therefore, it can be easily absorbed from the roots of the plant and can be made into oxygen-dissolved water suitable for plant growth. Even if the water level of the oxygen-dissolved water storage chamber is higher than the oxygen-dissolved water cluster converter 26 and the water level fluctuates 27, the water level of the oxygen-dissolved water is changed. When the oxygen-dissolved water is constantly filled, large bubbles of oxygen gas are not obstructed by the ceramic balls 30 and do not pass to the lower water supply unit 28. Therefore, the oxygen-dissolved water supplied from the outlet 20 does not include large bubbles of oxygen gas that is not in a dissolved state, and the utilization rate of oxygen gas can be increased.

  Further, if an oxygen-dissolved water cluster conversion unit 31 coated with graphite silica as a main raw material is provided on almost the entire outer peripheral surface of the side wall cylindrical body 5 constituting the case 4, the distant generated in the cluster conversion unit 31 is provided. The infrared rays can be passed through the side wall of the case 4 and applied to the oxygen-dissolved water inside, so that the clusters can also be made smaller to form small-cluster oxygen-dissolved water.

  Therefore, for example, groundwater having an oxygen solubility of D07 is used as a water source, and the groundwater is supplied to the oxygen-dissolved water generator 3 at a water pressure of 3 kg / square cm and supplied at 40 liters per minute, and the oxygen gas is supplied at a gas pressure of 4 kg / square cm. When supplied, oxygen-dissolved water having an oxygen solubility of D025 can be obtained.

  In this way, a large amount of oxygen is dissolved by the oxygen-dissolved water generator 3 to generate a small cluster of oxygen-dissolved water containing a large amount of negative ions. Water is supplied to hydroponic waterways, drip-growing mouths, etc. through openable / closable valves 53 such as valves, and absorbed from the roots of the plant to promote plant growth, improve quality, An increase can be measured. Therefore, when the oxygen-dissolved water generator 3 is provided, the oxygen-dissolved water generator 1 can be easily manufactured. The pumped-up groundwater can be directly supplied to the water supply pipe 44 by opening a normally closed valve 54 such as a reel valve. Further, when the oxygen-dissolved water stored in the oxygen-dissolved water generator 3 is not necessary, the water can be drained by opening the normally closed valve 55 such as a reel valve.

It is a front view which shows the oxygen dissolved water production | generation part of the oxygen dissolved water production | generation apparatus to which this invention is applied. It is a block diagram which shows the structure of the oxygen dissolved water production | generation apparatus. It is a front view of the cylindrical body for side walls which comprises the side wall of the case of the oxygen dissolved water generator with which the oxygen dissolved water production | generation part is equipped. It is a top view of the cylinder for the side walls.

It is a bottom view which shows the installation state of the upper cover which comprises the upper wall of the case of the oxygen dissolved water generator, the O-ring installed in the upper cover, three support rods, etc. It is a top view which shows the installation state of the lower cover which comprises the lower wall of the case of the oxygen dissolved water generator, the O-ring installed in the lower cover, three support rods, etc. It is a top view of the support stand which supports the oxygen dissolved water generator.

Explanation of symbols

  DESCRIPTION OF SYMBOLS 1 ... Oxygen-dissolved water production | generation apparatus 2 ... Oxygen-dissolved water production | generation part 3 ... Oxygen-dissolved water production | generation 4 ... Case 5 ... Cylindrical body for side walls 6, 7 ... Vertical opening 8,9 ... Upper / lower lid 10,11 ... Circular center part 12 , 13 ... coupling flange 14 ... water inlet 15 ... gas inlet 16, 23 ... support rod 17, 56 ... circular groove 18, 57 ... O-ring 19, 24 ... coupling through hole 20 ... water outlet 21 ... Water level detection tube 22 ... Tube connection port 25 ... Oxygen-dissolved water droplet forming partition wall 26, 31 ... Oxygen-dissolved water cluster conversion unit 27 ... Water level fluctuation unit 28 ... Water supply unit 29 ... Car body 30 ... Ceramic ball 32 ... Connecting rod 35 ... support bases 38, 40 ... bent pipe joints for connection 39, 41 ... three-way pipe joints for connection 42 ... supply pipe 43 ... oxygen gas pipe 44 ... water supply pipe 45 ... pump 48 ... oxygen cylinder 49 ... legi Aids 50 ... solenoid valves 51 ... water level sensor 52 ... controller

Claims (5)

  Using a case with upper and lower walls and side walls, a water inlet for taking in water from the outside and a gas inlet for taking in oxygen gas from the outside are provided in the wall near the upper wall, and the upper space in the case is provided. Oxygen gas is mixed into the water to form an oxygen-dissolved water generating chamber that generates oxygen-dissolved water. The lower space is used as an oxygen-dissolved water storage chamber for storing oxygen-dissolved water, and oxygen-dissolved water is placed on the wall near the lower wall. An oxygen-dissolved water generator having an oxygen-dissolved water outlet to be taken out to the outside, supplying pressurized water from the outside to the water inlet of the oxygen-dissolved water generating chamber, and further supplying water from the outside to the gas inlet Oxygen gas with a pressure higher than the water pressure is supplied, and the oxygen-dissolved water droplets are formed by mixing the oxygen gas released from the gas intake into the falling water discharged from the water intake into the oxygen-dissolved water production chamber. Many dispersed through holes for water droplet formation A plurality of partition walls for forming element-dissolved water droplets are dispersed and arranged sequentially from the top to the bottom at a predetermined distance, and oxygen-dissolved water droplets are formed below the hole diameter of the partition wall for forming oxygen-dissolved water droplets installed above the partition walls. An oxygen-dissolved water generator characterized by reducing the hole diameter of the partition wall.   In the oxygen-dissolved water reservoir, an oxygen-dissolved water cluster converter filled with many far-infrared radiation materials is provided, and the upper part of the cluster converter is the water level fluctuation part of the oxygen-dissolved water, and the lower cluster is converted from the cluster converter. The oxygen-dissolved water generator according to claim 1, wherein the oxygen-dissolved water generator is used as a water supply portion for storing the oxygen-dissolved water.   3. The oxygen-dissolved water generator according to claim 1 or 2, wherein an oxygen-dissolved water cluster conversion part coated with a far-infrared radiation material is provided on the outer surface of the side wall of the case.   The oxygen-dissolved water generator according to claim 2 or 3, wherein graphite silica is used as the far-infrared radiation material.   An oxygen-dissolved water generator comprising the oxygen-dissolved water generator according to claim 1, 2, 3 or 4.

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