Active hydrogen atomic water generating device

Abstract

The invention discloses an active hydrogen atomic water generating device, which relates to the technical field of active hydrogen atomic water generators. The device comprises a chassis; a mounting portion provided at the upper end of the chassis for mounting a water bucket; a water containing chamber provided inside the chassis, a metering chamber provided at the bottom of the water containing chamber, a hydrogen production chamber provided at the bottom of the metering chamber, two insulating arc plates provided facing each other in the hydrogen production chamber, and by starting a power supply, two electrodes on the two insulating arc plates are operated, the two electrodes being a positive electrode and a negative electrode respectively. Water between the two electrodes is ionized, thereby killing microorganisms, bacteria, etc. in the water. At the same time, the ionized water is activated, hydrogen atoms in the water lose electrons and form hydrogen ions and oxygen at the positive electrode of the electrode. A hole for oxygen to pass through is provided in the chassis, allowing oxygen to leave the device, and hydrogen ions in the water obtain electrons at the negative electrode of the electrode and become hydrogen atoms, so that the water contains a large amount of hydrogen atoms, thereby improving the drinking taste of the water.

Description

Technical Field

[0001] The present invention relates to the technical field of active hydrogen atomic water generators, in particular to an active hydrogen atomic water generating device. Background Art

[0002] The active hydrogen atomic water generator increases the hydrogen atom content in the water by forming hydrogen ions and finally hydrogen atoms under the action of ionization and electrolysis. This can increase the drinking taste of the water. However, when the water molecules in the water are ionized, hydrogen ions and oxygen are generated at the positive electrode, and the hydrogen ions gain electrons at the negative electrode to form hydrogen atoms. That is, the water hydrogen atoms are concentrated at the negative electrode, resulting in the hydrogen atoms in the water not being evenly distributed, and the water molecules are also difficult to be fully ionized and electrolyzed. As a result, the hydrogen atom content in the water is low, which affects the drinking taste of the water.

[0003] To this end, an active hydrogen atomic water generating device is proposed. Summary of the Invention

[0004] The object of the present invention is to provide an active hydrogen atomic water generator to solve the problems raised in the above background technology.

[0005] To achieve the above-mentioned object, the present invention provides the following technical solutions: an active hydrogen atomic water generating device, comprising a chassis;

[0006] A mounting portion provided at the upper end of the chassis for mounting a water bucket;

[0007] A water containing chamber is provided inside the chassis, a metering chamber is provided at the bottom of the water containing chamber, a hydrogen production chamber is provided at the bottom of the metering chamber, two insulating arc plates are provided facing each other in the hydrogen production chamber, electrodes for ionizing water are fixedly provided on the two insulating arc plates, and the two electrodes are connected to a power supply.

[0008] Preferably, the mounting portion includes a mounting groove, the mounting groove is opened on the mounting portion, and a water outlet cylinder is fixedly arranged in the middle of the mounting portion, a smart rod is fixedly connected to the center of the bottom of the water outlet cylinder, and the bottom of the inner surface of the water outlet cylinder is densely opened with through filter holes, a material bag is placed in the water outlet cylinder, and the material bag is placed on the filter hole.

[0009] Preferably, a circular groove is provided on the chassis, the circular groove is arranged around the mounting groove, and an auxiliary cover for auxiliary support of the bucket is extended out of the circular groove and slidably connected thereto, the bottom of the auxiliary cover is annular and fixedly connected to a plurality of support springs, the bottom of each support spring is fixedly connected to the upper end face of the chassis, the bottom of the side wall of the circular groove is embedded with a first induction plate and a second induction plate, and the first induction plate and the second induction plate are adjacently arranged and not in contact, and a receiving plate is embedded with a side wall at one end of the auxiliary cover extending into the circular groove and fixedly connected thereto, and the receiving plate corresponds to the first induction plate and the second induction plate.

[0010] Preferably, a control cavity is opened in the chassis, and a cylinder is arranged in the control cavity. The cylinder is fixedly connected to a fold line through a gas rod, and the end of the fold line away from the cylinder extends through the control cavity and is slidably connected. The end of the fold line extending through the control cavity is fixedly connected to a sealing insulating plug. The sealing insulating plug is in the water containing cavity and is slidably sealed with the metering cavity.

[0011] Preferably, the bottom of the sealing insulating plug is fixedly connected to a vertical rod, the lower end of the vertical rod extends through and is movably connected to a rotating drum, the rotating drum is rotatably connected in the chassis, and one end of the vertical rod extends through and is fixedly connected to a control block, a protrusion is fixedly connected to the side wall of the control block, a spiral groove is provided in the rotating drum, the protrusion extends into and is movably connected in the spiral groove, a gear extends through and is fixedly connected to the outer wall of the rotating drum, the gear is meshed with a gear ring, the gear ring and the hydrogen production chamber are rotatably connected to a cylinder, the cylinder extends through and out of the gear ring and is fixedly connected to the gear ring, and the insulating arc plate is located on the inner side of the cylinder.

[0012] Preferably, a connecting rod is fixedly connected to the lower side of the inner surface of the cylinder, a shaft rod is fixedly connected to the connecting rod, the shaft rod is arranged at the center of the cylinder, and a plurality of swirl rods are fixedly connected to the side wall of the shaft rod.

[0013] Preferably, a control plate is fixedly connected to the upper end of the cylinder, a transmission rod is fixedly connected to the outer wall of each insulating arc plate, an oblique arc groove is opened on the inner wall of the hydrogen production chamber corresponding to each transmission rod, and one end of the transmission rod extends into the oblique arc groove and is movably connected.

[0014] Preferably, an anti-electricity channel is opened at the bottom of the hydrogen production chamber, and a water outlet pipe is fixedly connected to the bottom of the anti-electricity channel. A base is fixedly connected to the bottom of the chassis, and the water outlet pipe is arranged at the center above the base. The base is hollow, and the upper surface of the base is provided with holes for allowing water to pass through.

[0015] Preferably, a right-angle wrench is fixedly connected to the bottom of the rotating drum, and the other end of the right-angle wrench is fixedly connected to a cross bar, and the cross bar extends into the anti-electricity channel and is sealed and rotatably connected. One end of the cross bar that extends into the anti-electricity channel is fixedly connected to an insulating disk, and the insulating disk is made of insulating material and is sealed and rotatably connected in the anti-electricity channel.

[0016] Preferably, a plurality of accommodating openings are provided on the inner side wall of the insulating disk in a circular shape and at equal intervals.

[0017] Compared with the prior art, the present invention has the following beneficial effects:

[0018] The present invention activates the power supply to operate two electrodes on two insulating arc plates, which are respectively positive and negative. The water between the two electrodes is ionized, thereby killing microorganisms and bacteria in the water. At the same time, the ionized water is activated, and hydrogen atoms in the water lose electrons and form hydrogen ions and oxygen at the positive electrode. Holes for oxygen to pass through are provided in the chassis, allowing oxygen to leave the device. The hydrogen ions in the water gain electrons at the negative electrode and become hydrogen atoms, thereby containing a large amount of hydrogen atoms in the water, thereby improving the drinking taste of the water.

[0019] The present invention is to fill a water bucket with water, turn the bucket upside down and insert it into the installation groove, so that the water in the bucket flows down through the filter holes at the bottom of the water outlet tube and fills the water storage chamber and the metering chamber. At this time, the insulating disk acts as a seal to block the hydrogen production chamber to prevent water from flowing out of the device.

[0020] The present invention can purify the water by placing activated carbon or other water-purifying items in the material bag when the water in the water bucket is well water or other water that may contain a lot of impurities. When the water in the water bucket is hot water, items that are beneficial to the human body and can be soaked, such as fennel, tea, chrysanthemum, wolfberry, etc., can also be placed in the material bag, so that the water flowing out of the device has corresponding functions, and its functions are more diversified and practical. In addition, the design of the material bag also facilitates the cleaning and replacement of items in the material bag.

[0021] When the water bucket is a canned drinking water bucket with a stopper, the present invention refers to the bottled water on the water dispenser. The smart rod pushes the water stopper on the water bucket into the water bucket so that the water in the bucket can flow out. At the same time, the smart rod and the auxiliary cover cooperate with the mounting groove to limit the support of the inverted water bucket, thereby preventing the water bucket from tipping over.

[0022] The present invention supplies power to the cylinder through a power supply. The cylinder drives the fold line up and down once through the gas rod. The fold line moves downward and drives the sealing insulating plug to move downward. The sealing insulating plug first enters the metering chamber. At this time, the water in the water containing chamber is isolated by the sealing insulating plug and cannot enter the metering chamber. The elastic sealing membrane is designed to ensure that the water in the water containing chamber does not enter the control chamber.

[0023] The present invention drives the vertical rod to which it is fixed to move downward by moving the sealing insulating plug downward, and the protrusion fixedly connected to the bottom of the vertical rod through the control block moves downward. Since the protrusion extends into the spiral groove and cannot rotate, when the protrusion moves downward in the spiral groove, the spiral groove and the rotating drum in which it is located rotate, the gear fixed to the rotating drum rotates, the gear ring engaged with the gear rotates, the cylinder in which the gear ring is located rotates, and the shaft rod and the swirl rod in the cylinder rotate, thereby stirring between the two electrodes, moving water molecules that are not at the positive electrode of the electrode through the positive electrode of the electrode to be ionized and electrolyzed into hydrogen ions and oxygen. The hydrogen ions ionized and electrolyzed at the positive electrode of the electrode can obtain electrons at the negative electrode to form hydrogen atoms, so that the hydrogen atoms formed at the negative electrode of the electrode can leave the negative electrode, that is, greatly increasing the efficiency of hydrogen atoms generated by electrode ionization and increasing the hydrogen atom content in the water.

[0024] The present invention rotates the cylinder, and the control plate fixedly connected to the cylinder rotates. When the control plate rotates and contacts the transmission rod on the insulating arc plate, the control plate rotates, driving the insulating arc plate and the transmission rod to rotate. One end of the transmission rod extends into the oblique arc groove. When the transmission rod rotates, it moves in the oblique arc groove, causing the transmission rod to rise. The insulating arc plate fixedly connected to the transmission rod and the electrode on the insulating arc plate rise, and the position of the transmission rod on the insulating arc plate rises. When the transmission rod rises and leaves the control plate, the control plate loses its limited rotation, and the insulating arc plate is reset downward under the action of gravity. That is, the insulating arc plate and the transmission rod on the insulating arc plate can rotate a certain arc and move up and down, thereby further increasing the contact area between the electrode and water and increasing its ionization efficiency. The purpose of the insulating arc plate and its electrode automatically resetting downward after moving a certain arc instead of rotating continuously is to prevent the wire connected to the electrode from being disconnected.

[0025] The present invention installs the water bucket on the mounting portion and then releases the hand. The auxiliary cover moves downward under the gravity of the water bucket and the water in the water bucket. The receiving piece on the auxiliary cover moves downward, and the receiving piece contacts the first sensing piece and the second sensing piece at the same time. At this time, the receiving piece controls the two electrodes to work normally through the controller. As the water in the water bucket is used, the water in the water bucket gradually decreases, and the gravity exerted on the auxiliary cover by the water bucket and the water in the bucket gradually decreases. The auxiliary cover moves upward under the action of the supporting spring. When the water in the water bucket is completely used up, the receiving piece on the auxiliary cover no longer contacts the first sensing piece, but only contacts the second sensing piece. At this time, the receiving piece controls the number of times the cylinder is used after this situation occurs. When the number of uses reaches a certain number, the water in the water storage chamber and the metering chamber is used up. At this time, the power supply will not be able to supply power to the electrodes to prevent the electrodes from drying out when there is no water, thereby damaging the electrodes.

[0026] The present invention places a drinking water cup on the base corresponding to the water outlet pipe. Ionized active hydrogen atomic water enters the receiving port on the insulating disk. The rotating drum rotates, which drives the crossbar to rotate via a right-angle wrench. The insulating disk fixedly connected to the crossbar rotates, and the active hydrogen atomic water in the receiving port on the insulating disk continuously flows through the water outlet pipe into the cup below for drinking. In this way, active hydrogen atomic water can be produced instantly when drinking water is needed, thereby achieving the purpose of achieving the best drinking taste.

[0027] The present invention uses an insulating disk made of an insulating material. Due to the insulation of the adjacent side walls of the receiving port, when the receiving port carries the active hydrogen atomic water and rotates out of the anti-electrical passage, the active hydrogen atomic water in the receiving port does not carry the current generated by the operation of the electrodes. That is, the active hydrogen atomic water in the receiving port is not charged when it flows out of the water outlet pipe, thereby preventing electric shock and improving safety.

[0028] The present invention uses a sealing insulating plug which is also made of insulating material. After being inserted into the metering cavity, the sealing insulating plug seals and insulates. The sealing insulating plug and the insulating disk made of insulating material work together to control the current generated by the electrode within the metering cavity and the hydrogen production cavity, which is safer. When it is found that the active hydrogen atomic water flowing out of the water outlet pipe is charged, it means that there is a problem with the sealing of the insulating disk. At this time, the sealing problem of the insulating disk will cause water leakage when the device is not in use. Or, if the water outlet pipe continues to discharge water when not in use, it means that there is a problem with the sealing of the insulating disk in the anti-electricity channel, which poses a risk of electric shock. When the water at the installation part is charged when the device is in use, it means that there is a problem with the sealing of the sealing insulating plug in the metering cavity.

[0029] The present invention moves the sealing insulating plug downward in the metering chamber and does not move to the bottom of the metering chamber. The advantage of this is that when the cylinder controls the sealing insulating plug to move upward through the gas rod, the insulating disk reverses. At this time, the remaining water in the metering chamber is ionized into active hydrogen atomic water and flows into the water cup below through the insulating disk and the water outlet pipe. The active hydrogen ion water flowing out of the water outlet pipe when the cylinder controls the sealing insulating plug to move up and down once is just the capacity of one cup of the cup below, thereby realizing quantitative water extraction. If the sealing insulating plug moves downward in the metering chamber to the bottom of the metering chamber and then moves upward, there is no water in the metering chamber due to the sealing isolation of the sealing insulating plug. At this time, when the sealing insulating plug moves upward again, the water in the hydrogen production chamber passes through the insulating disk and flows out of the water outlet pipe. At this time, there is no water in the hydrogen production chamber, and the electrode is prone to dry burning when it continues to work, thereby damaging the electrode. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] Figure 1 It is an overall view of the present invention;

[0031] Figure 2 A partial cutaway view of the upper portion of the chassis of the present invention;

[0032] Figure 3 It is a front view of the chassis of the present invention;

[0033] Figure 4 A side sectional view of the present invention as a whole;

[0034] Figure 5 This is an overall structural view of the mounting portion of the present invention;

[0035] Figure 6 is a side sectional view of the mounting portion of the present invention;

[0036] Figure 7 An overall view of the drum area of ​​the present invention;

[0037] Figure 8 A partial cross-sectional view of the drum region of the present invention;

[0038] Figure 9 A cross-sectional view of the drum region of the present invention;

[0039] Figure 10 is an overall view of the insulating disc of the present invention;

[0040] Figure 11 For the present invention Figure 7 A magnified view of A;

[0041] Figure 12 For the present invention Figure 3 An enlarged view of B;

[0042] Figure 13 For the present invention Figure 8 Magnified view of C.

[0043] In the picture:

[0044] 1. Chassis; 11. Mounting unit; 12. Water storage chamber; 13. Metering chamber; 14. Hydrogen production chamber; 15. Insulating arc plate; 16. Electrode; 21. Mounting slot; 22. Water outlet cylinder; 23. Smart rod; 24. Filter hole; 25. Material bag; 3. Annular groove; 31. Auxiliary cover; 32. Support spring; 33. First sensor plate; 34. Second sensor plate; 35. Receiver plate; 4. Cylinder; 41. Control chamber; 42. Sealing insulating plug; 43 , elastic sealing membrane; 44, broken line; 5, vertical rod; 51, control block; 52, rotating drum; 53, protrusion; 54, gear; 55, cylinder; 56, spiral groove; 57, gear ring; 6, connecting rod; 61, shaft; 62, swirl rod; 7, control plate; 71, transmission rod; 72, oblique arc groove; 8, anti-electric passage; 81, water outlet pipe; 82, base; 9, right-angle wrench; 91, horizontal rod; 92, insulating disk; 100, receiving port. DETAILED DESCRIPTION

[0045] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0046] See also Figures 1 to 13 , the present invention provides a technical solution:

[0047] An active hydrogen atomic water generating device comprises a chassis 1;

[0048] A mounting portion 11 provided at the upper end of the chassis 1 for mounting a water bucket;

[0049] A water containing chamber 12 is provided inside the chassis 1, and a metering chamber 13 is provided at the bottom of the water containing chamber 12. A hydrogen producing chamber 14 is provided at the bottom of the metering chamber 13. Two insulating arc plates 15 are provided facing each other in the hydrogen producing chamber 14. The two insulating arc plates 15 are fixed with electrodes 16 for ionizing water, and the two electrodes 16 are connected to a power supply.

[0050] As an embodiment of the present invention, the mounting portion 11 includes a mounting groove 21, the mounting groove 21 is opened on the mounting portion 11, and a water outlet cylinder 22 is fixedly arranged in the middle of the mounting portion 11, a smart rod 23 is fixedly connected at the bottom center of the water outlet cylinder 22, and the bottom of the inner surface of the water outlet cylinder 22 is densely provided with through filter holes 24, a material bag 25 is placed in the water outlet cylinder 22, and the material bag 25 is placed on the filter hole 24.

[0051] During operation, the power supply is started to operate the two electrodes 16 on the two insulating arc plates 15. The two electrodes 16 are respectively a positive electrode and a negative electrode. The water between the two electrodes 16 is ionized, thereby killing microorganisms, bacteria, etc. in the water. At the same time, the ionized water is activated, and the hydrogen atoms in the water lose electrons and form hydrogen ions and oxygen at the positive electrode of the electrode 16. A hole for oxygen to pass through is provided in the chassis 1, so that oxygen leaves the device, and the hydrogen ions in the water obtain electrons at the negative electrode of the electrode 16 and become hydrogen atoms, so that the water contains a large amount of hydrogen atoms, thereby improving the drinking taste of the water.

[0052] As an embodiment of the present invention, a circular groove 3 is provided on the chassis 1, and the circular groove 3 is arranged around the mounting groove 21, and an auxiliary cover 31 for auxiliary support of the bucket is extended out from the circular groove 3 and slidably connected. The bottom of the auxiliary cover 31 is annular and fixedly connected with multiple support springs 32, and the bottom of each support spring 32 is fixedly connected to the upper end face of the chassis 1. The bottom of the side wall of the circular groove 3 is embedded and fixedly connected with a first sensing plate 33 and a second sensing plate 34, and the first sensing plate 33 and the second sensing plate 34 are adjacent to each other and do not contact. The auxiliary cover 31 extends into the circular groove 3 and is embedded and fixedly connected with a receiving plate 35 on the side wall, and the receiving plate 35 corresponds to the first sensing plate 33 and the second sensing plate 34.

[0053] During operation, when the water in the bucket is well water or other water with a high level of impurities, activated carbon or other water-purifying items can be placed in the material bag 25 to purify the water. When the water in the bucket is hot water, items that are beneficial to the human body and can be soaked, such as fennel, tea leaves, chrysanthemums, and wolfberries, can also be placed in the material bag 25, so that the water flowing out of the device has corresponding functions, making its functions more diversified and practical. In addition, the design of the material bag 25 also facilitates the cleaning and replacement of items in the material bag 25.

[0054] When the bucket is a canned drinking water bucket with a stopper, the smart rod 23 pushes the stopper on the bucket into the bucket so that the water in the bucket can flow out. At the same time, the smart rod 23 and the auxiliary cover 31 cooperate with the mounting groove 21 to limit the support of the inverted bucket, thereby preventing the bucket from tipping over.

[0055] As an embodiment of the present invention, a control chamber 41 is opened in the chassis 1, and a cylinder 4 is arranged in the control chamber 41. The cylinder 4 is fixedly connected to a fold line 44 through a gas rod. The end of the fold line 44 away from the cylinder 4 extends through the control chamber 41 and is slidably connected. The end of the fold line 44 extending through the control chamber 41 is fixedly connected with a sealing insulating plug 42. The sealing insulating plug 42 is in the water containing chamber 12 and is slidably sealed with the metering chamber 13.

[0056] During operation, the power supply supplies power to the cylinder 4, and the cylinder 4 drives the fold line 44 to move up and down once through the gas rod. The fold line 44 moves downward, driving the sealing insulating plug 42 to move downward. The sealing insulating plug 42 first enters the metering chamber 13. At this time, the water in the water containing chamber 12 is isolated by the sealing insulating plug 42 and cannot enter the metering chamber 13. The design of the elastic sealing membrane 43 is to ensure that the water in the water containing chamber 12 will not enter the control chamber 41.

[0057] As an embodiment of the present invention, the bottom of the sealing insulating plug 42 is fixedly connected to a vertical rod 5, the lower end of the vertical rod 5 extends through and is movably connected to a rotating drum 52, the rotating drum 52 is rotatably connected in the chassis 1, and one end of the vertical rod 5 extends through and is fixedly connected to a control block 51, a protrusion 53 is fixedly connected to the side wall of the control block 51, a spiral groove 56 is opened in the rotating drum 52, the protrusion 53 extends into and is movably connected in the spiral groove 56, a gear 54 extends through and is fixedly connected to the outer wall of the rotating drum 52, the gear 54 is meshed with a gear ring 57, the gear ring 57, a cylinder 55 is rotatably connected in the hydrogen production chamber 14, the cylinder 55 extends through and extends out of the gear ring 57 and is fixedly connected to the gear ring 57, and the insulating arc plate 15 is located on the inner side of the cylinder 55.

[0058] A connecting rod 6 is fixedly connected to the lower side of the inner surface of the cylinder 55 , and a shaft 61 is fixedly connected to the connecting rod 6 . The shaft 61 is arranged at the center of the cylinder 55 , and a plurality of swirl rods 62 are fixedly connected to the side wall of the shaft 61 .

[0059] During operation, the sealing insulating plug 42 moves downward, driving the vertical rod 5 to which it is fixed to move downward. The protrusion 53 fixedly connected to the bottom of the vertical rod 5 by the control block 51 moves downward. Since the protrusion 53 extends into the spiral groove 56 and cannot rotate, when the protrusion 53 moves downward in the spiral groove 56, the spiral groove 56 and the rotating drum 52 in which it is located rotate, the gear 54 fixed to the rotating drum 52 rotates, the gear ring 57 engaged with the gear 54 rotates, the cylinder 55 in which the gear ring 57 is located rotates, and the shaft 61 and the swirl rod 62 in the cylinder 55 rotate, thereby stirring between the two electrodes 16, moving water molecules not at the positive electrode of the electrode 16 through the positive electrode of the electrode 16 to be ionized and electrolyzed into hydrogen ions and oxygen. The hydrogen ions ionized and electrolyzed at the positive electrode of the electrode 16 can obtain electrons at the negative electrode to form hydrogen atoms, so that the hydrogen atoms formed at the negative electrode of the electrode 16 can leave the negative electrode, that is, greatly increasing the efficiency of hydrogen atoms produced by ionization of the electrode 16 and increasing the hydrogen atom content in the water.

[0060] As an embodiment of the present invention, a control plate 7 is fixedly connected to the upper end of the cylinder 55, a transmission rod 71 is fixedly connected to the outer wall of each insulating arc plate 15, and an oblique arc groove 72 is opened on the inner wall of the hydrogen production chamber 14 corresponding to each transmission rod 71, and one end of the transmission rod 71 extends into the oblique arc groove 72 and is movably connected.

[0061] During operation, the cylinder 55 rotates, and the control plate 7 fixedly connected to the cylinder 55 rotates. When the control plate 7 rotates and contacts the transmission rod 71 on the insulating arc plate 15, the control plate 7 rotates and drives the insulating arc plate 15 and the transmission rod 71 to rotate. One end of the transmission rod 71 extends into the oblique arc groove 72. When the transmission rod 71 rotates, it moves in the oblique arc groove 72 to raise the transmission rod 71. The insulating arc plate 15 fixedly connected to the transmission rod 71 and the electrode 16 on the insulating arc plate 15 rise. At the same time, the position of the transmission rod 71 on the insulating arc plate 15 is raised. When the transmission rod 71 rises and leaves the control plate 7, the control plate 7 loses its limited rotation, and the insulating arc plate 15 is reset downward under the action of gravity, that is, the insulating arc plate 15 and the transmission rod 71 on the insulating arc plate 15 can rotate a certain arc and move up and down, thereby further increasing the contact area between the electrode 16 and the water to increase its ionization efficiency; and the purpose of the insulating arc plate 15 and its electrode 16 automatically resetting downward after moving a certain arc instead of rotating continuously is to prevent the wire connected to the electrode 16 from being broken.

[0062] As an embodiment of the present invention, an anti-electricity channel 8 is opened at the bottom of the hydrogen production chamber 14, and a water outlet pipe 81 is fixedly connected to the bottom of the anti-electricity channel 8. A base 82 is fixedly connected to the bottom of the chassis 1, and the water outlet pipe 81 is arranged at the center above the base 82. The base 82 is hollow, and the upper surface of the base 82 is provided with holes for allowing water to pass through.

[0063] During operation, after the bucket is mounted on the mounting portion 11 and the user releases the handle, the auxiliary cover 31 moves downward under the gravity of the bucket and the water in the bucket, and the receiving piece 35 on the auxiliary cover 31 moves downward, and the receiving piece 35 thereby contacts the first sensing piece 33 and the second sensing piece 34 at the same time. At this time, the receiving piece 35 controls the two electrodes 16 to work normally through the controller. As the water in the bucket is used, the water in the bucket gradually decreases, and the gravity exerted on the auxiliary cover 31 by the bucket and the water in the bucket gradually decreases. The auxiliary cover 31 moves upward under the action of the supporting spring 32. When the water in the bucket is completely used up, the receiving piece 35 on the auxiliary cover 31 no longer contacts the first sensing piece 33, but only contacts the second sensing piece 34. At this time, the receiving piece 35 controls the number of times the cylinder 4 is used after this situation occurs. When the number of uses reaches a certain number, the water in the water storage chamber 12 and the metering chamber 13 is used up. At this time, the power supply will not be able to supply power to the electrode 16 to prevent the electrode 16 from dry-burning in the absence of water, thereby damaging the electrode 16.

[0064] The number of uses is determined by how many times the water in the metering chamber 13 and the water holding chamber 12 can be used up by starting the cylinder 4 according to the different capacities of the metering chamber 13 and the water holding chamber 12, that is, how many cups can be filled by filling the cups on the base 82 with water in the metering chamber 13 and the water holding chamber 12.

[0065] As an embodiment of the present invention, a right-angle wrench 9 is fixedly connected to the bottom of the rotating drum 52, and a cross bar 91 is fixedly connected to the other end of the right-angle wrench 9. The cross bar 91 extends through the anti-electricity channel 8 and is sealed and rotatably connected. One end of the cross bar 91 extends through the anti-electricity channel 8 and is fixedly connected to an insulating disk 92. The insulating disk 92 is made of insulating material and is sealed and rotatably connected in the anti-electricity channel 8. A plurality of accommodating openings 100 are provided on the inner side wall of the insulating disk 92 in a circular shape with equal intervals.

[0066] During operation, the water bucket is filled with water, and the mouth of the water bucket is turned upside down and inserted into the mounting groove 21. The water in the water bucket flows down through the filter hole 24 at the bottom of the water outlet tube 22 and fills the water holding chamber 12 and the metering chamber 13. The insulating disk 92 acts as a seal to block the hydrogen production chamber 14 to prevent water from flowing out of the device.

[0067] A cup for drinking water is placed on the base 82 corresponding to the water outlet pipe 81. The ionized active hydrogen atomic water enters the receiving port 100 on the insulating disk 92. The rotating drum 52 rotates, driving the crossbar 91 to rotate via the right-angle wrench 9. The insulating disk 92 fixed to the crossbar 91 rotates, and the active hydrogen atomic water in the receiving port 100 on the insulating disk 92 continuously flows through the water outlet pipe 81 into the cup below for drinking. This allows the active hydrogen atomic water to be produced instantly when drinking is needed, thereby achieving the purpose of optimal drinking taste.

[0068] The insulating disk 92 is made of an insulating material. Due to the insulation of the sidewalls adjacent to the receiving opening 100, when the receiving opening 100 carries the active hydrogen atomic water and rotates out of the anti-electrical passage 8, the active hydrogen atomic water in the receiving opening 100 does not carry the current generated by the operation of the electrode 16. In other words, the active hydrogen atomic water in the receiving opening 100 is not charged when it flows out of the water outlet pipe 81, thereby preventing electric shock and improving safety.

[0069] The sealing insulating plug 42 is also made of insulating material. After extending into the metering cavity 13, the sealing insulating plug 42 is sealed and insulated. It works together with the insulating disk 92 made of insulating material to control the current generated by the electrode 16 within the metering cavity 13 and the hydrogen production cavity 14, which is safer. When it is found that the active hydrogen atomic water flowing out of the water outlet pipe 81 is charged, it means that there is a problem with the sealing of the insulating disk 92. At this time, the sealing problem of the insulating disk 92 will cause water leakage when the device is not in use. Or when the water outlet pipe 81 continues to discharge water when not in use, it means that there is a problem with the sealing of the insulating disk 92 in the anti-electric channel 8, which poses a risk of electric shock. When the water at the installation part 11 is charged when the device is in use, it means that there is a problem with the sealing of the sealing insulating plug 42 in the metering cavity 13.

[0070] The sealing insulating plug 42 moves downward in the metering chamber 13 but does not move to the bottom of the metering chamber 13. The advantage of this is that when the cylinder 4 controls the sealing insulating plug 42 to move upward through the gas rod, the insulating disk 92 reverses. At this time, the remaining water in the metering chamber 13 is ionized into active hydrogen atomic water and flows into the water cup below through the insulating disk 92 and the water outlet pipe 81. The active hydrogen ion water flowing out of the water outlet pipe 81 when the cylinder 4 controls the sealing insulating plug 42 to move up and down once is just the capacity of one cup of the cup below, thereby realizing quantitative water extraction. If the sealing insulating plug 42 moves downward in the metering chamber 13 to the bottom of the metering chamber 13 and then moves upward, there is no water in the metering chamber 13 due to the sealing isolation of the sealing insulating plug 42. At this time, when the sealing insulating plug 42 moves upward again, the water in the hydrogen production chamber 14 flows out of the water outlet pipe 81 through the insulating disk 92. At this time, there is no water in the hydrogen production chamber 14, and the electrode 16 continues to work and is prone to dry burning, thereby damaging the electrode 16.

[0071] Working principle: Fill a bucket with water, turn the bucket upside down and insert it into the installation slot 21. The water in the bucket flows down through the filter hole 24 at the bottom of the water outlet tube 22 and fills the water chamber 12 and the metering chamber 13. The insulating disk 92 then acts as a seal to block the hydrogen production chamber 14 to prevent water from flowing out of the device.

[0072] When the water in the bucket is well water or other water that may contain a lot of impurities, activated carbon or other water purifying items can be placed in the material bag 25 to purify the water. When the water in the bucket is hot water, items that are beneficial to the human body and can be soaked, such as fennel, tea, chrysanthemum, wolfberry, etc., can also be placed in the material bag 25, so that the water flowing out of the device has corresponding functions, making its functions more diversified and practical. In addition, the design of the material bag 25 also makes it easy to clean and replace the items in the material bag 25.

[0073] When the water bucket is a canned drinking water bucket with a stopper (refer to the bottled water on the water dispenser), the smart rod 23 pushes the water stopper on the bucket into the bucket so that the water in the bucket can flow out. At the same time, the smart rod 23 and the auxiliary cover 31 cooperate with the mounting groove 21 to limit the position of the inverted bucket, thereby preventing the bucket from tipping over.

[0074] Start the power supply to operate the two electrodes 16 on the two insulating arc plates 15. The two electrodes 16 are respectively positive and negative. The water between the two electrodes 16 is ionized, thereby killing microorganisms and bacteria in the water. At the same time, the ionized water is activated, and the hydrogen atoms in the water lose electrons and form hydrogen ions and oxygen at the positive electrode of the electrode 16. Holes for oxygen to pass through are provided in the chassis 1, allowing oxygen to leave the device. The hydrogen ions in the water gain electrons at the negative electrode of the electrode 16 and become hydrogen atoms, so that the water contains a large amount of hydrogen atoms, thereby improving the drinking taste of the water.

[0075] The power supply is turned on to supply power to the cylinder 4, which drives the fold line 44 to move up and down once through the gas rod. The fold line 44 moves downward, driving the sealing insulating plug 42 to move downward. The sealing insulating plug 42 first enters the metering chamber 13. At this time, the water in the water containing chamber 12 is isolated by the sealing insulating plug 42 and cannot enter the metering chamber 13. The design of the elastic sealing membrane 43 is to ensure that the water in the water containing chamber 12 does not enter the control chamber 41.

[0076] The sealing insulating plug 42 moves downward, driving the vertical rod 5 to which it is fixed to move downward. The protrusion 53 fixedly connected to the bottom of the vertical rod 5 through the control block 51 moves downward. Since the protrusion 53 extends into the spiral groove 56 and the protrusion 53 cannot rotate, when the protrusion 53 moves downward in the spiral groove 56, the spiral groove 56 and the rotating drum 52 in which it is located rotate, the gear 54 fixed to the rotating drum 52 rotates, the gear ring 57 engaged with the gear 54 rotates, the cylinder 55 in which the gear ring 57 is located rotates, and the shaft 6 in the cylinder 55 rotates. 1 and the swirl rod 62 rotate, thereby stirring between the two electrodes 16, moving the water molecules that are not at the positive electrode of the electrode 16 through the positive electrode of the electrode 16 to be ionized and electrolyzed into hydrogen ions and oxygen. The hydrogen ions ionized and electrolyzed at the positive electrode of the electrode 16 can obtain electrons at the negative electrode to form hydrogen atoms, so that the hydrogen atoms formed at the negative electrode of the electrode 16 can leave the negative electrode, that is, greatly increasing the efficiency of hydrogen atoms generated by ionization of the electrode 16, increasing the hydrogen atom content in the water, and also making the hydrogen atoms in the water uniform;

[0077] The cylinder 55 rotates, and the control plate 7 fixedly connected to the cylinder 55 rotates. When the control plate 7 rotates and contacts the transmission rod 71 on the insulating arc plate 15, the control plate 7 rotates, driving the insulating arc plate 15 and the transmission rod 71 to rotate. One end of the transmission rod 71 extends into the oblique arc groove 72. When the transmission rod 71 rotates, it moves within the oblique arc groove 72, causing the transmission rod 71 to rise. The insulating arc plate 15 fixedly connected to the transmission rod 71 and the electrode 16 on the insulating arc plate 15 rise, and the position of the transmission rod 71 on the insulating arc plate 15 rises. When the transmission rod 71 rises and leaves the control plate 7, the control plate 7 loses its limited rotation, and the insulating arc plate 15 is reset downward under the action of gravity. That is, the insulating arc plate 15 and the transmission rod 71 on the insulating arc plate 15 can rotate a certain arc and move up and down, thereby further increasing the contact area between the electrode 16 and the water and improving its ionization efficiency. The purpose of the insulating arc plate 15 and its electrode 16 automatically resetting downward after moving a certain arc instead of continuously rotating is to prevent the wire connected to the electrode 16 from being disconnected.

[0078] After the bucket is mounted on the mounting portion 11, the auxiliary cover 31 moves downward under the gravity of the bucket and the water in the bucket, and the receiving piece 35 on the auxiliary cover 31 moves downward. The receiving piece 35 thereby contacts the first sensing piece 33 and the second sensing piece 34 at the same time. At this time, the receiving piece 35 controls the two electrodes 16 to work normally through the controller. As the water in the bucket is used, the water in the bucket gradually decreases, and the gravity exerted on the auxiliary cover 31 by the bucket and the water in the bucket gradually decreases. The auxiliary cover 31 moves upward under the action of the supporting spring 32. When the water in the bucket is completely used up, the receiving piece 35 on the auxiliary cover 31 no longer contacts the first sensing piece 33, but only contacts the second sensing piece 34. At this time, the receiving piece 35 controls the number of times the cylinder 4 is used after this situation occurs. When the number of uses reaches a certain number, the water in the water storage chamber 12 and the metering chamber 13 is used up. At this time, the power supply will not be able to supply power to the electrode 16 to prevent the electrode 16 from dry-burning in the absence of water, thereby damaging the electrode 16.

[0079] The number of uses is determined by how many times the water in the metering chamber 13 and the water holding chamber 12 can be used up by activating the cylinder 4, depending on the different capacities of the metering chamber 13 and the water holding chamber 12. This is determined by how many cups can be filled with water from the metering chamber 13 and the water holding chamber 12 when placed on the base 82.

[0080] A cup for drinking water is placed on the base 82 corresponding to the water outlet pipe 81. The ionized active hydrogen atomic water enters the receiving port 100 on the insulating disk 92. The rotating drum 52 rotates, driving the crossbar 91 to rotate via the right-angle wrench 9. The insulating disk 92 fixed to the crossbar 91 rotates, and the active hydrogen atomic water in the receiving port 100 on the insulating disk 92 continuously flows through the water outlet pipe 81 into the cup below for drinking. This allows the active hydrogen atomic water to be produced immediately when drinking is needed. This prevents the situation where the water, after ionization and electrolysis, produces hydrogen atoms and is not consumed for a certain period of time, and the hydrogen atoms easily combine with oxygen to form water molecules, thereby achieving the purpose of achieving the best drinking taste.

[0081] The insulating disk 92 is made of an insulating material. Due to the insulation of the sidewalls adjacent to the receiving opening 100, when the receiving opening 100 carries the active hydrogen atomic water and rotates out of the anti-electrical passage 8, the active hydrogen atomic water in the receiving opening 100 does not carry the current generated by the operation of the electrode 16. In other words, the active hydrogen atomic water in the receiving opening 100 is not charged when it flows out of the water outlet pipe 81, thereby preventing electric shock and improving safety.

[0082] The sealing insulating plug 42 is also made of insulating material. After extending into the metering cavity 13, the sealing insulating plug 42 is sealed and insulated. It works together with the insulating disk 92 made of insulating material to control the current generated by the electrode 16 within the metering cavity 13 and the hydrogen production cavity 14, which is safer. When it is found that the active hydrogen atomic water flowing out of the water outlet pipe 81 is charged, it means that there is a problem with the sealing of the insulating disk 92. At this time, the sealing problem of the insulating disk 92 will cause water leakage when the device is not in use. Or when the water outlet pipe 81 continues to discharge water when not in use, it means that there is a problem with the sealing of the insulating disk 92 in the anti-electric channel 8, which poses a risk of electric shock. When the water at the installation part 11 is charged when the device is in use, it means that there is a problem with the sealing of the sealing insulating plug 42 in the metering cavity 13.

[0083] It should be noted that the sealing insulating plug 42 does not move to the bottom of the metering chamber 13 when it moves downward in the metering chamber 13. The advantage of this is that when the cylinder 4 controls the sealing insulating plug 42 to move upward through the gas rod, the insulating disk 92 reverses. At this time, the remaining water in the metering chamber 13 is ionized into active hydrogen atomic water and flows into the water cup below through the insulating disk 92 and the water outlet pipe 81. The active hydrogen ion water flowing out of the water outlet pipe 81 when the cylinder 4 controls the sealing insulating plug 42 to move up and down once is just the capacity of one cup of the cup below, thereby realizing quantitative water extraction. If the sealing insulating plug 42 moves downward in the metering chamber 13 to the bottom of the metering chamber 13 and then moves upward, there is no water in the metering chamber 13 due to the sealing isolation of the sealing insulating plug 42. At this time, when the sealing insulating plug 42 moves upward again, the water in the hydrogen production chamber 14 flows out of the water outlet pipe 81 through the insulating disk 92. At this time, there is no water in the hydrogen production chamber 14, and the electrode 16 continues to work and is prone to dry burning, thereby damaging the electrode 16.

[0084] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. An active hydrogen atomic water generating device, characterized in that: include: Chassis (1); A mounting portion (11) provided at the upper end of the chassis (1) for mounting a water bucket; A water containing chamber (12) is provided inside the chassis (1), a metering chamber (13) is provided at the bottom of the water containing chamber (12), a hydrogen producing chamber (14) is provided at the bottom of the metering chamber (13), two insulating arc plates (15) are provided facing each other in the hydrogen producing chamber (14), electrodes (16) for ionizing water are fixedly provided on the two insulating arc plates (15), and the two electrodes (16) are connected to a power supply. A control chamber (41) is provided in the chassis (1), and a cylinder ( 4), the cylinder (4) is fixedly connected to a fold line (44) through a gas rod, the end of the fold line (44) away from the cylinder (4) penetrates and extends through the control chamber (41) and is slidably connected, the end of the fold line (44) penetrating and extending through the control chamber (41) is fixedly connected to a sealing insulating plug (42), the sealing insulating plug (42) is arranged in a sliding seal in the water containing chamber (12) and the metering chamber (13), the bottom of the sealing insulating plug (42) is fixedly connected to a vertical rod (5), the lower end of the vertical rod (5) penetrates and extends into and is movably connected The rotating drum (52) is connected to the chassis (1), and the vertical rod (5) extends through the rotating drum (52) and is fixedly connected to the control block (51) at one end. The side wall of the control block (51) is fixedly connected with a protrusion (53). A spiral groove (56) is opened in the rotating drum (52). The protrusion (53) extends into and is movably connected to the spiral groove (56). The outer wall of the rotating drum (52) extends through and is fixedly connected with a gear (54). The gear (54) is meshed with the gear ring (5 7), the gear ring (57), the hydrogen production chamber (14) is rotatably connected to a cylinder (55), the cylinder (55) extends through the gear ring (57) and is fixedly connected to the gear ring (57), the insulating arc plate (15) is located on the inner side of the cylinder (55), the lower side of the inner surface of the cylinder (55) is fixedly connected to a connecting rod (6), the connecting rod (6) is fixedly connected to a shaft (61), the shaft (61) is set at the center of the cylinder (55), and a plurality of swirl rods (62) are fixedly connected to the side wall of the shaft (61).

2. The active hydrogen atomic water generating device according to claim 1, characterized in that: The mounting portion (11) includes a mounting groove (21), the mounting groove (21) is provided on the mounting portion (11), and a water outlet cylinder (22) is fixedly provided in the middle of the mounting portion (11), a smart rod (23) is fixedly connected to the center of the bottom of the water outlet cylinder (22), and the bottom of the inner surface of the water outlet cylinder (22) is densely provided with through filter holes (24), a material bag (25) is placed in the water outlet cylinder (22), and the material bag (25) is placed on the filter hole (24).

3. The active hydrogen atomic water generating device according to claim 2, characterized in that: The chassis (1) is provided with an annular groove (3), which is arranged around the mounting groove (21), and an auxiliary cover (31) for auxiliary support of the bucket is extended through the annular groove (3) and slidably connected thereto, the bottom of the auxiliary cover (31) being annular and fixedly connected to a plurality of support springs (32), the bottom of each support spring (32) being fixedly connected to the upper end surface of the chassis (1), the bottom of the side wall of the annular groove (3) being embedded and fixedly connected to a first sensing piece (33) and a second sensing piece (34), and the first sensing piece (33) and the second sensing piece (34) being adjacently arranged and not in contact, and a receiving piece (35) being embedded and fixedly connected to the side wall of one end of the auxiliary cover (31) extending into the annular groove (3), and the receiving piece (35) corresponding to the first sensing piece (33) and the second sensing piece (34).

4. The active hydrogen atomic water generating device according to claim 1, characterized in that: A control plate (7) is fixedly connected to the upper end of the cylinder (55), a transmission rod (71) is fixedly connected to the outer wall of each insulating arc plate (15), and an oblique arc groove (72) is opened on the inner wall of the hydrogen production chamber (14) corresponding to each transmission rod (71), and one end of the transmission rod (71) extends into the oblique arc groove (72) and is movably connected.

5. The active hydrogen atomic water generating device according to claim 4, characterized in that: An anti-electricity channel (8) is provided at the bottom of the hydrogen production chamber (14), and a water outlet pipe (81) is connected to the bottom of the anti-electricity channel (8). A base (82) is fixedly connected to the bottom of the chassis (1), and the water outlet pipe (81) is arranged at the center above the base (82). The base (82) is hollow, and a hole for allowing water to pass through is provided on the upper surface of the base (82).

6. The active hydrogen atomic water generating device according to claim 1, characterized in that: A right-angle wrench (9) is fixedly connected to the bottom of the rotating drum (52), and the other end of the right-angle wrench (9) is fixedly connected to a cross bar (91), and the cross bar (91) extends through the anti-electricity channel (8) and is sealed and rotatably connected. One end of the cross bar (91) that extends through the anti-electricity channel (8) is fixedly connected to an insulating disk (92), and the insulating disk (92) is made of an insulating material and is sealed and rotatably connected in the anti-electricity channel (8).

7. The active hydrogen atomic water generating device according to claim 6, characterized in that: The inner side wall of the insulating disk (92) is provided with a plurality of accommodating openings (100) at equal intervals in a circular shape.

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