Chlorinator with off-water protection function

Abstract

The utility model discloses a chlorinator with an out-of-water protection function, and aims to overcome the defects that a sodium hypochlorite generator cannot realize out-of-water power-off protection of an electrolysis assembly, and the service life of a titanium plate is shortened due to continuous out-of-water work of the electrolysis assembly. The chloridizing device comprises a chloridizing device body, an electrolysis assembly and a water leaving detector are installed on the chloridizing device body, and the water leaving detector detects whether water exists or does not exist to control the electrolysis assembly to be powered on or powered off. According to the chlorinator with the off-water protection function, off-water power-off protection can be achieved, the risk that an electrolytic titanium plate continuously works after being taken away from the water surface is reduced, and the service life of the titanium plate is effectively prolonged.

Description

Technical Field

[0001] The utility model relates to the field of water treatment, and more specifically to a chlorinator with a water separation protection function. Background Art

[0002] Sodium hypochlorite generator is a commonly used water purification equipment, which can continuously and controllably generate sodium hypochlorite disinfectant. Existing floating chlorinators on the market can only be started and shut down by buttons, and do not have water separation protection function. When the device is taken away from the swimming pool or SPA water surface, if you forget to press the switch button, the electrolytic component will continue to work, causing the titanium plate to lose life. Utility Model Content

[0003] In order to overcome the above-mentioned shortcomings, the utility model provides a chlorinator with water separation protection function, which can realize water separation power-off protection, reduce the risk of the electrolytic titanium plate continuing to work after being taken out of the water surface, and effectively extend the service life of the titanium plate.

[0004] In order to solve the above technical problems, the utility model adopts the following technical scheme: a chlorinator with water separation protection function, including a chlorinator body, an electrolytic component and a water separation detector are installed on the chlorinator body, and the water separation detector detects whether there is water or not to control the power on or off of the electrolytic component.

[0005] The chlorinator is placed in a pool for use. During normal use, the chlorinator floats on the water surface. At this time, the electrolytic component is immersed in the water. The water separation detector detects the presence of water and controls the electrolytic component to be powered on for operation. When the chlorinator is out of water, the water separation detector detects that there is no water and controls the electrolytic component to be powered off for protection, thereby preventing the electrolytic component from continuing to work after being out of water and causing loss of the life of the electrolytic titanium plate. The chlorinator with water separation protection function applied for in this patent can realize water separation power-off protection, reduce the risk of the electrolytic titanium plate continuing to work after being taken out of the water surface, and effectively extend the service life of the titanium plate.

[0006] Preferably, the water separation detector includes a detection body and two pins, one end of the two pins is connected to the detection body, and the other end of the two pins extends downward and close to the upper side of the electrolytic component, and the resistance value between the two pins is detected to determine whether water is separated.

[0007] When the electrolytic component is immersed in water, the two pins are also immersed in water, and the resistance between the two pins is small. When the electrolytic component is out of water, the two pins are also out of water, and the resistance between the two pins is large. By detecting the resistance value between the two pins, it is determined whether the pins are out of water, thereby determining whether the electrolytic component is out of water. This water separation detector is easy to install and reliable in detection.

[0008] The second solution is that the water separation detector includes a connecting column and a floating block. The floating block is movably mounted on the connecting column. A reed switch is installed in the connecting column. A magnetic block is set on the floating block. When the floating block floats to a high position, the magnetic block corresponds to the reed switch.

[0009] When the electrolytic component is immersed in water, the floating block is lifted to a high position by the buoyancy. At this time, the magnetic block on the floating block corresponds to the reed switch in the connecting column. After the reed switch senses the magnetic force, the two contacts are connected, so that the electrolytic component is powered on. When the electrolytic component is out of water, the buoyancy of the floating block disappears, and the floating block slides down to misalign the magnetic block and the reed switch. The reed switch cannot sense the magnetic force, and the two contacts of the reed switch separate, so that the electrolytic component is powered off for protection.

[0010] The third solution is that the water separation detector includes a connecting column and a floating block. The floating block is movably mounted on the connecting column. A push rod is installed on the connecting column. The push rod is placed above the floating block. The upper part of the push rod is connected to the movable terminal. A fixed terminal is arranged on the connecting column. The fixed terminal and the movable terminal are arranged correspondingly up and down. When the floating block floats to a high position, the push rod is lifted upward to make the movable terminal and the fixed terminal contact and conduct.

[0011] When the electrolytic component is immersed in water, the floating block is lifted to a high position by the buoyancy. At this time, the floating block pushes the top rod upward to make the movable terminal and the fixed terminal contact and conduct, so that the electrolytic component is powered on. When the electrolytic component is out of water, the buoyancy of the floating block disappears, and the floating block moves downward under the action of gravity, and the movable terminal and the fixed terminal are separated and disconnected, so that the electrolytic component is powered off and protected.

[0012] Preferably, a circuit board is installed in the chlorinator body, and the electrolytic component and the water separation detector are both electrically connected to the circuit board.

[0013] The circuit board is installed in the chlorinator body to play a waterproof role. The signal detected by the water separation detector is transmitted to the circuit board, and the circuit board controls the power on and off of the electrolytic component according to the detected signal.

[0014] Preferably, two wiring terminals are arranged on the upper part of the electrolytic assembly, and the wiring terminals are connected with wiring screws, which are connected with the chlorinator body.

[0015] The setting of the wiring terminal facilitates the connection of the wiring harness, and the wiring terminal realizes the connection between the electrolytic component and the chlorinator body.

[0016] Preferably, the chlorinator body comprises a casing and a protective cover, wherein the protective cover is connected to the lower part of the casing, the upper end of the casing is connected to the upper cover, and the electrolytic component and the water separation detector are both placed in the protective cover.

[0017] The protective cover protects the electrolytic components and the water separation detector.

[0018] Preferably, a slot socket is installed in the casing, a float is installed on the periphery of the slot socket in the casing, the lower end of the slot socket extends out of the casing, and the upper end of the protective cover is fastened to the lower end of the slot socket.

[0019] The float ensures that the entire chlorinator can float on the water surface for use. The tank socket is connected to the protective cover, so that the lower part of the casing is clamped between the tank socket and the protective cover, thereby realizing the positioning of the casing.

[0020] Preferably, the electrolytic assembly and the water separation detector are both installed at the bottom of the tank socket.

[0021] The electrolytic components and water separation detector are both installed at the bottom of the tank socket, which is convenient and reliable.

[0022] Preferably, a battery is installed in the slot socket, a reinforcing rib is arranged on the inner bottom surface of the slot socket, a clamping rib is arranged on the inner wall of the slot socket, an inclined guide surface is arranged on the upper end of the clamping rib, and the outer wall of the battery is clamped between the clamping ribs.

[0023] The reinforcing ribs can increase the structural strength of the bottom of the slot socket. When the battery is installed at the bottom of the slot socket, the guide surface plays a guiding role, and the outer wall of the battery is clamped between the clamping ribs for reliable installation.

[0024] Compared with the prior art, the utility model has the beneficial effects that the chlorinator with water separation protection function can realize water separation power-off protection, reduces the risk of the electrolytic titanium plate continuing to work after being taken out of the water surface, and effectively prolongs the service life of the titanium plate. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a cross-sectional view of the utility model;

[0026] Figure 2 It is an exploded view of embodiment 1 of the utility model;

[0027] Figure 3 It is a connection diagram of the slot socket of Example 1 of the utility model;

[0028] Figure 4 It is an exploded view of embodiment 2 of the utility model;

[0029] Figure 5 It is a connection diagram of the slot socket of Example 2 of the utility model;

[0030] Figure 6 is a cross-sectional view of a water separation detector according to Embodiment 3 of the present utility model;

[0031] In the figure: 1, chlorinator body, 2, electrolytic component, 3, water separation detector, 4, casing, 5, protective cover, 6, upper cover, 7, circuit board, 8, mesh, 9, slot socket, 10, float, 11, battery, 12, reinforcing rib, 13, clamping rib, 14, guide surface, 15, terminal, 16, terminal screw, 17, convex ring, 18, detection body, 19, pin, 20, shielding cover, 21, connecting cover, 22, connecting column, 23, floating block, 24, retaining ring, 25, positioning convex block, 26, ejector rod, 27, return spring, 28, movable terminal, 29, fixed terminal, 30, connecting cavity, 31, fixing plug. DETAILED DESCRIPTION

[0032] The technical solution of the present invention is further described in detail below through specific embodiments and in conjunction with the accompanying drawings:

[0033] Example 1: A chlorinator with water separation protection function (see attached Figure 1 To Attachment Figure 3 ), comprising a chlorinator body 1, an electrolytic component 2 and a water separation detector 3 are installed on the chlorinator body 1, the chlorinator body 1 comprises a casing 4 and a protective cover 5, the protective cover 5 is connected to the lower part of the casing 4, the upper end of the casing 4 is connected to an upper cover 6, and the electrolytic component 2 and the water separation detector 3 are both placed in the protective cover 5. The water separation detector 3 detects whether there is water or no water to control the power on or off of the electrolytic component 2. A circuit board 7 is installed in the chlorinator body 1, and the electrolytic component 2 and the water separation detector 3 are both electrically connected to the circuit board 7.

[0034] A mesh 8 is provided on the side wall of the protective cover 5, and the mesh 8 facilitates the passage of water. A slot socket 9 is installed in the casing 4, and a float 10 is installed on the periphery of the slot socket 9 in the casing 4. The lower end of the slot socket 9 extends out of the casing 4, and the upper end of the protective cover 5 is tightly connected to the lower end of the slot socket 9. The upper end of the protective cover 5 is open and an internal thread is provided on the inner wall of the opening, and an external thread is provided on the outer wall of the lower end of the slot socket 9. The protective cover 5 and the slot socket 9 are tightly connected by the cooperation of the internal thread and the external thread. The upper outer wall of the protective cover 5 expands upward. The electrolytic component 2 and the water separation detector 3 are both installed at the bottom of the slot socket 9. The upper part of the electrolytic component 2 and the water separation detector 3 are tightly connected to the bottom of the slot socket 9.

[0035] A battery 11 is installed in the slot socket 9, and a plurality of reinforcing ribs 12 are arranged on the inner bottom surface of the slot socket 9, and a plurality of clamping ribs 13 are arranged on the inner wall of the slot socket 9. An inclined guide surface 14 is arranged on the upper end of the clamping rib 13, and the outer wall of the battery 11 is clamped between the clamping ribs 13. Two wiring terminals 15 are arranged on the upper part of the electrolytic assembly 2, and a wiring screw 16 is connected to the wiring terminal 15, and the wiring screw 16 is connected to the chlorinator body 1. Two locking nuts are connected to the wiring screw 16, and the two locking nuts are respectively placed on the upper and lower sides of the wiring terminal 15. A convex ring 17 is arranged on the bottom surface of the slot socket 9 and at a position corresponding to the wiring screw 16. The convex ring 17 is placed on the periphery of the wiring screw 16 to protect the wiring screw 16.

[0036] The water separation detector 3 includes a detection body 18 and two pins 19. The detection body 18 is fixedly mounted at the bottom of the slot socket 9. One end of the two pins 19 is connected to the detection body 18. The other end of the two pins 19 extends downward and is close to the upper side of the electrolytic component 2. The resistance value between the two pins 19 is detected to determine whether the water is separated. Both pins 19 are connected to the circuit board 7 through wires. A controller is arranged on the circuit board 7. The controller can detect the resistance value between the two pins 19 and can realize the power-on and power-off control of the electrolytic component 2. The bottom of the slot socket 9 and the detection body 18 are provided with a plug-in slot correspondingly. The detection body 18 is sealed and plug-in connected with the plug-in slot. When the electrolytic component 2 is immersed in water, the two pins 19 are also immersed in water, and the resistance between the two pins 19 is small. When the electrolytic component 2 is separated from water, the two pins 19 are also separated from water, and the resistance between the two pins 19 is large. By detecting the resistance value between the two pins 19, it is determined whether the pins 19 are separated from water, thereby determining whether the electrolytic component 2 is separated from water. This water separation detector 3 is easy to install and reliable in detection.

[0037] like Figure 1 , Figure 2 As shown, the lower end of the housing 4 is connected to the protective cover 5, the upper end of the housing 4 is connected to the upper cover 6, the circuit board 7 is installed above the battery 11, and a shielding cover 20 is arranged above the circuit board 7, and the shielding cover 20 completely covers the circuit board 7 to achieve shielding. A connection cover 21 is arranged above the shielding cover 20, and the connection cover 21 is tightly connected to the slot socket 9, and the upper cover 6 covers the connection cover 21 and the upper end of the housing 4. A button and a charging interface are arranged on the circuit board 7, and both the button and the charging interface are exposed from the upper cover 6, and a sealing plug is connected to the charging interface.

[0038] The chlorinator is placed in a pool for use. During normal use, the chlorinator floats on the water surface. At this time, the electrolytic component 2 is immersed in the water. The water separation detector 3 detects that there is water and controls the electrolytic component 2 to be powered on for operation. When the chlorinator is out of water, the water separation detector 3 detects that there is no water and controls the electrolytic component 2 to be powered off for protection, thereby preventing the electrolytic component 2 from continuing to work after being out of water and causing the electrolytic titanium plate to lose its life. The chlorinator with water separation protection function disclosed in this patent application can realize water separation power-off protection, reduce the risk of the electrolytic titanium plate continuing to work after being taken out of the water surface, and effectively extend the service life of the titanium plate.

[0039] Example 2: A chlorinator with water separation protection function (see attached Figure 4 , Attachment Figure 5 ), comprising a chlorinator body 1, an electrolytic component 2 and a water separation detector 3 are installed on the chlorinator body 1, the chlorinator body 1 comprises a casing 4 and a protective cover 5, the protective cover 5 is connected to the lower part of the casing 4, the upper end of the casing 4 is connected to an upper cover 6, and the electrolytic component 2 and the water separation detector 3 are both placed in the protective cover 5. The water separation detector 3 detects whether there is water or no water to control the power on or off of the electrolytic component 2. A circuit board 7 is installed in the chlorinator body 1, and the electrolytic component 2 and the water separation detector 3 are both electrically connected to the circuit board 7.

[0040] A mesh 8 is provided on the side wall of the protective cover 5, and the mesh 8 facilitates the passage of water. A slot socket 9 is installed in the casing 4, and a float 10 is installed on the periphery of the slot socket 9 in the casing 4. The lower end of the slot socket 9 extends out of the casing 4, and the upper end of the protective cover 5 is tightly connected to the lower end of the slot socket 9. The upper end of the protective cover 5 is open and an internal thread is provided on the inner wall of the opening, and an external thread is provided on the outer wall of the lower end of the slot socket 9. The protective cover 5 and the slot socket 9 are tightly connected by the cooperation of the internal thread and the external thread. The upper outer wall of the protective cover 5 expands upward. The electrolytic component 2 and the water separation detector 3 are both installed at the bottom of the slot socket 9. The upper part of the electrolytic component 2 and the water separation detector 3 are tightly connected to the bottom of the slot socket 9.

[0041] A battery 11 is installed in the slot socket 9, and a plurality of reinforcing ribs 12 are arranged on the inner bottom surface of the slot socket 9, and a plurality of clamping ribs 13 are arranged on the inner wall of the slot socket 9. An inclined guide surface 14 is arranged on the upper end of the clamping rib 13, and the outer wall of the battery 11 is clamped between the clamping ribs 13. Two wiring terminals 15 are arranged on the upper part of the electrolytic assembly 2, and a wiring screw 16 is connected to the wiring terminal 15, and the wiring screw 16 is connected to the chlorinator body 1. Two locking nuts are connected to the wiring screw 16, and the two locking nuts are respectively placed on the upper and lower sides of the wiring terminal 15. A convex ring 17 is arranged on the bottom surface of the slot socket 9 and at a position corresponding to the wiring screw 16. The convex ring 17 is placed on the periphery of the wiring screw 16 to protect the wiring screw 16.

[0042] The water separation detector 3 includes a connecting column 22 and a floating block 23. The floating block 23 is movably mounted on the connecting column 22. A reed switch is installed in the connecting column 22. A magnetic block is arranged on the floating block 23. When the floating block 23 floats to a high position, the magnetic block corresponds to the reed switch. The lower end of the connecting column 22 is connected to a retaining ring 24. The retaining ring 24 limits the floating block 23. A positioning protrusion 25 is arranged on the outer wall of the connecting column 22. A socket is arranged on the bottom surface of the slot socket 9. The connecting column 22 is adapted to be inserted into the socket. The positioning protrusion 25 abuts against the outer bottom surface of the slot socket 9. A locking nut is connected to the connecting column 22. The locking nut abuts against the inner bottom surface of the slot socket 9 to realize the locking and positioning of the connecting column 22. The two contacts of the reed switch are respectively connected to the circuit board 7 through wires. A controller is arranged on the circuit board 7. The controller can realize the on-off control of the electrolytic component 2 by turning the reed switch on and off.

[0043] When the electrolytic component 2 is immersed in water, the floating block 23 is lifted to a high position by the buoyancy. At this time, the magnetic block on the floating block 23 corresponds to the reed switch in the connecting column 22. After the reed switch senses the magnetic force, the two contacts are connected, so that the electrolytic component 2 is powered on. When the electrolytic component 2 is out of water, the buoyancy of the floating block 23 disappears, and the floating block 23 slides down to misalign the magnetic block and the reed switch. The reed switch cannot sense the magnetic force, and the two contacts of the reed switch are separated, so that the electrolytic component 2 is powered off for protection.

[0044] like Figure 4 , Figure 5 As shown, the lower end of the housing 4 is connected to the protective cover 5, the upper end of the housing 4 is connected to the upper cover 6, the circuit board 7 is installed above the battery 11, and a shielding cover 20 is arranged above the circuit board 7, and the shielding cover 20 completely covers the circuit board 7 to achieve shielding. A connection cover 21 is arranged above the shielding cover 20, and the connection cover 21 is tightly connected to the slot socket 9, and the upper cover 6 covers the connection cover 21 and the upper end of the housing 4. A button and a charging interface are arranged on the circuit board 7, and both the button and the charging interface are exposed from the upper cover 6, and a sealing plug is connected to the charging interface.

[0045] The chlorinator is placed in a pool for use. During normal use, the chlorinator floats on the water surface. At this time, the electrolytic component 2 is immersed in the water. The water separation detector 3 detects that there is water and controls the electrolytic component 2 to be powered on for operation. When the chlorinator is out of water, the water separation detector 3 detects that there is no water and controls the electrolytic component 2 to be powered off for protection, thereby preventing the electrolytic component 2 from continuing to work after being out of water and causing the electrolytic titanium plate to lose its life. The chlorinator with water separation protection function disclosed in this patent application can realize water separation power-off protection, reduce the risk of the electrolytic titanium plate continuing to work after being taken out of the water surface, and effectively extend the service life of the titanium plate.

[0046] Example 3: A chlorinator with water separation protection function (see attached Figure 6), comprising a chlorinator body 1, an electrolytic component 2 and a water separation detector 3 are installed on the chlorinator body 1, the chlorinator body 1 comprises a casing 4 and a protective cover 5, the protective cover 5 is connected to the lower part of the casing 4, the upper end of the casing 4 is connected to an upper cover 6, and the electrolytic component 2 and the water separation detector 3 are both placed in the protective cover 5. The water separation detector 3 detects whether there is water or no water to control the power on or off of the electrolytic component 2. A circuit board 7 is installed in the chlorinator body 1, and the electrolytic component 2 and the water separation detector 3 are both electrically connected to the circuit board 7.

[0047] A mesh 8 is provided on the side wall of the protective cover 5, and the mesh 8 facilitates the passage of water. A slot socket 9 is installed in the casing 4, and a float 10 is installed on the periphery of the slot socket 9 in the casing 4. The lower end of the slot socket 9 extends out of the casing 4, and the upper end of the protective cover 5 is tightly connected to the lower end of the slot socket 9. The upper end of the protective cover 5 is open and an internal thread is provided on the inner wall of the opening, and an external thread is provided on the outer wall of the lower end of the slot socket 9. The protective cover 5 and the slot socket 9 are tightly connected by the cooperation of the internal thread and the external thread. The upper outer wall of the protective cover 5 expands upward. The electrolytic component 2 and the water separation detector 3 are both installed at the bottom of the slot socket 9. The upper part of the electrolytic component 2 and the water separation detector 3 are tightly connected to the bottom of the slot socket 9.

[0048] A battery 11 is installed in the slot socket 9, and a plurality of reinforcing ribs 12 are arranged on the inner bottom surface of the slot socket 9, and a plurality of clamping ribs 13 are arranged on the inner wall of the slot socket 9. An inclined guide surface 14 is arranged on the upper end of the clamping rib 13, and the outer wall of the battery 11 is clamped between the clamping ribs 13. Two wiring terminals 15 are arranged on the upper part of the electrolytic assembly 2, and a wiring screw 16 is connected to the wiring terminal 15, and the wiring screw 16 is connected to the chlorinator body 1. Two locking nuts are connected to the wiring screw 16, and the two locking nuts are respectively placed on the upper and lower sides of the wiring terminal 15. A convex ring 17 is arranged on the bottom surface of the slot socket 9 and at a position corresponding to the wiring screw 16. The convex ring 17 is placed on the periphery of the wiring screw 16 to protect the wiring screw 16.

[0049] The water separation detector 3 includes a connecting column 22 and a floating block 23. The floating block 23 is movably mounted on the connecting column 22. The lower end of the connecting column 22 is connected to a retaining ring 24. The retaining ring 24 limits the floating block 23. A push rod 26 is installed on the connecting column 22. The push rod 26 is placed above the floating block 23. A return spring 27 is installed between the push rod 26 and the connecting column 22. The upper part of the push rod 26 is connected to a movable terminal 28. A fixed terminal 29 is arranged on the connecting column 22. The fixed terminal 29 and the movable terminal 28 are arranged correspondingly up and down. The floating block 23 floats to a high position and pushes the push rod 26 upward to make the movable terminal 28 and the fixed terminal 29 contact and conduct. The fixed terminal 29 and the movable terminal 28 are connected to the circuit board 7 through wires respectively. A controller is arranged on the circuit board 7. The controller can realize the on-off control of the electrolytic component 2 by whether the movable terminal 28 and the fixed terminal 29 are in contact. A connection cavity 30 is provided on the upper part of the connection column 22, and a connection fixing plug 31 is fastened in the connection cavity 30, and a fixed terminal 29 is connected to the fixed plug, and the connection cavity 30 is encapsulated with insulating glue. A positioning protrusion 25 is provided on the outer wall of the connection column 22, and a socket is provided on the bottom surface of the slot socket 9. The connection column 22 is adapted to be inserted into the socket, and the positioning protrusion 25 abuts on the outer bottom surface of the slot socket 9. A locking nut is connected to the connection column 22, and the locking nut abuts on the inner bottom surface of the slot socket 9 to realize the locking and positioning of the connection column 22. When the electrolytic component 2 is immersed in water, the floating block 23 is lifted upward to a high position by the buoyancy. At this time, the floating block 23 pushes the top rod 26 upward to make the movable terminal 28 and the fixed terminal 29 contact and conduct, so that the electrolytic component 2 is powered on. When the electrolytic component 2 is out of water, the buoyancy of the floating block 23 disappears, and the floating block 23 moves downward under the action of gravity, and the movable terminal 28 and the fixed terminal 29 are separated and disconnected, so that the electrolytic component 2 is powered off and protected.

[0050] The lower end of the housing 4 is connected to the protective cover 5, the upper end of the housing 4 is connected to the upper cover 6, the circuit board 7 is installed above the battery 11, and a shielding cover 20 is arranged above the circuit board 7, and the shielding cover 20 completely covers the circuit board 7 to achieve shielding. A connection cover 21 is arranged above the shielding cover 20, and the connection cover 21 is tightly connected to the slot socket 9, and the upper cover 6 covers the connection cover 21 and the upper end of the housing 4. A button and a charging interface are arranged on the circuit board 7, and both the button and the charging interface are exposed from the upper cover 6, and a sealing plug is connected to the charging interface.

[0051] The chlorinator is placed in a pool for use. During normal use, the chlorinator floats on the water surface. At this time, the electrolytic component 2 is immersed in the water. The water separation detector 3 detects that there is water and controls the electrolytic component 2 to be powered on for operation. When the chlorinator is out of water, the water separation detector 3 detects that there is no water and controls the electrolytic component 2 to be powered off for protection, thereby preventing the electrolytic component 2 from continuing to work after being out of water and causing the electrolytic titanium plate to lose its life. The chlorinator with water separation protection function disclosed in this patent application can realize water separation power-off protection, reduce the risk of the electrolytic titanium plate continuing to work after being taken out of the water surface, and effectively extend the service life of the titanium plate.

[0052] The above-described embodiments are only preferred solutions of the present invention and are not intended to limit the present invention in any form. Other variations and modifications are possible without exceeding the technical solutions described in the claims.

Claims

1. A chlorinator with water separation protection function, characterized in that: The invention comprises a chlorinator body, on which an electrolytic component and a water separation detector are installed. The water separation detector detects whether there is water or not to control the power on or off of the electrolytic component. The water separation detector comprises a detection body and two pins, one end of the two pins is connected to the detection body, and the other end of the two pins extends downward and approaches the upper side of the electrolytic component. The resistance value between the two pins is detected to determine whether there is water separation.

2. A chlorinator with water separation protection function according to claim 1, characterized in that: A circuit board is installed in the chlorinator body, and the electrolytic component and the water separation detector are both electrically connected to the circuit board.

3. A chlorinator with water separation protection function according to claim 1, characterized in that: Two wiring terminals are arranged on the upper part of the electrolytic assembly, and the wiring terminals are connected with wiring screws, which are connected with the chlorinator body.

4. A chlorinator with water separation protection function according to any one of claims 1 to 3, characterized in that: The chlorinator body comprises a casing and a protective cover, wherein the protective cover is connected to the lower part of the casing, the upper end of the casing is connected to the upper cover, and the electrolytic component and the water separation detector are both placed in the protective cover.

5. A chlorinator with water separation protection function according to claim 4, characterized in that: A slot socket is installed in the casing, a float is installed on the periphery of the slot socket in the casing, the lower end of the slot socket extends out of the casing, and the upper end of the protective cover is tightly connected with the lower end of the slot socket.

6. A chlorinator with water separation protection function according to claim 5, characterized in that: The electrolytic assembly and the water separation detector are both installed at the bottom of the tank socket.

7. The chlorinator with water separation protection function according to claim 5, characterized in that: The battery is installed in the slot socket, the inner bottom surface of the slot socket is provided with reinforcing ribs, the inner wall of the slot socket is provided with clamping ribs, the upper end of the clamping ribs is provided with inclined guide surfaces, and the outer wall of the battery is clamped between the clamping ribs.

8. A chlorinator with water separation protection function, characterized in that: The invention comprises a chlorinator body, on which an electrolytic component and a water separation detector are installed. The water separation detector detects whether there is water or not to control the power on or off of the electrolytic component. The water separation detector comprises a connecting column and a floating block. The floating block is movably mounted on the connecting column. A reed switch is installed in the connecting column. A magnetic block is arranged on the floating block. When the floating block floats to a high position, the magnetic block corresponds to the reed switch.

9. A chlorinator with water separation protection function, characterized in that: The invention comprises a chlorinator body, on which an electrolytic component and a water separation detector are installed, and the water separation detector detects whether there is water or not to control the power on or off of the electrolytic component; the water separation detector comprises a connecting column and a floating block, the floating block is movably mounted on the connecting column, a push rod is installed on the connecting column, the push rod is placed above the floating block, the upper part of the push rod is connected to a movable terminal, a fixed terminal is arranged on the connecting column, the fixed terminal and the movable terminal are arranged correspondingly up and down, and the floating block floats to a high position to push the push rod upward to make the movable terminal and the fixed terminal contact and conduct.

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