Valve element with water flow compensation function

Abstract

A valve element with a water flow compensation function comprises a valve shell, a static valve block arranged at the bottom of an inner cavity of the valve shell and a movable valve block arranged above the static valve block, the static valve block is provided with a cold water inlet hole, a hot water inlet hole and a mixed water outlet hole, the movable valve block can rotate and slide relative to the static valve block, and a mixing cavity, a cold water compensation cavity and a hot water compensation cavity are formed in the movable valve block. The mixing cavity is communicated with the first water mixing opening and the second water mixing opening, and the movable valve plate slides to different positions to achieve closing of the valve element, conventional mixing water outlet temperature adjustment and a special water outlet mode. The valve element has the remarkable beneficial effects that the temperature adjusting precision is greatly improved, when cold and hot water flow in the mixing cavity is suddenly unbalanced in the temperature adjusting process, the cold water compensation cavity or the hot water compensation cavity will intervene to play a role, inconvenience caused by sudden change of the water temperature is restrained, and a user can easily adjust the water temperature; the water outlet modes are diversified, the requirements of different water use scenes can be met, and the applicability of the faucet is improved; the overall structure is compact and efficient, component layout is reasonable, water flow resistance is reduced, and the overall performance of the valve element is optimized.

Description

TECHNICAL FIELD

[0001] The utility model relates to the technical field of faucet valve core, specifically relates to a valve core with water flow compensation function. BACKGROUND

[0002] In the field of modern bathroom facilities, as a key component, the performance of the faucet valve core plays a decisive role in user experience. The traditional mixed water valve core is mostly driven by a valve rod to rotate a ceramic moving piece, which changes the overlapping area of the ceramic static piece and the moving piece through-flow hole to adjust the cold and hot water inflow, and realizes water temperature control.

[0003] As shown in the Chinese utility model patent "ceramic control valve for controlling cold and hot water mixing ratio and water outlet quantity and fixed disc" with patent number ZL200420118665.4 (publication number CN2761932Y). However, with the improvement of living quality, such traditional valve cores have exposed many problems in actual use.

[0004] First, the temperature adjustment accuracy cannot meet the demand: the human body is extremely sensitive to water temperature, and the comfortable water temperature range is narrow, usually between 37℃ and 42℃. Within this temperature range, people feel most comfortable when they wash and bathe. However, the existing temperature adjustment valve core generally has the problem of excessive sensitivity in temperature adjustment. In actual operation, people turn the valve rod, but lack of precise angle control mechanism, it is difficult to accurately grasp the rotation amplitude. A little rotation can greatly change the cold and hot water inflow, causing the mixed water temperature to fluctuate sharply. For example, when bathing, if you want to adjust the water temperature, you may turn the valve rod slightly, but the water temperature may suddenly rise, making it difficult for you to bear; when washing hands, the water temperature is originally low, and a slight adjustment may suddenly make the water temperature too high, not only causing discomfort, but also wasting water resources. Such sudden changes in water temperature occur frequently, making it difficult for users to quickly and accurately adjust the water temperature to the desired state, seriously affecting the water use experience, and embarrassing water use scenarios often occur.

[0005] Second, the water outlet mode is single and the function is limited, which cannot adapt to multiple scenes: the moving valve piece of the traditional valve core can only meet the basic functions of manual adjustment of water temperature and flow, and cannot adapt to complex and diverse use scenarios. If the moving valve piece can slide to multiple positions and realize multiple water outlet modes, it can bring more possibilities. For example, when the moving valve piece slides to a specific position, the valve core can switch to a manual adjustment mode, and the user can freely adjust the water temperature and flow size as usual; when the moving valve piece slides to another position, the valve core can open the delay closing function, and after the user finishes using it, the faucet can automatically close according to the preset time without manual operation. Through the design of multiple position sliding, the valve core can have multiple functions such as manual adjustment and delay closing at the same time, greatly improving the applicability of the faucet in different scenes and meeting people's demand for convenient, sanitary and efficient water use.

[0006] Therefore, how to develop a valve core which can realize the switching of multiple water outlet modes by changing the sliding position of the moving valve plate to meet different water use scenarios, and also has a water flow compensation function to extend the temperature adjustment area and make the water temperature adjustment easier to control, is a problem that the person skilled in the art needs to solve. Content of the utility model

[0007] The technical problem solved by the utility model is to provide a valve core with a water flow compensation function, which has a reasonable and compact structure, can realize the switching of water outlet modes by changing the sliding position of the moving valve plate, and has a water flow compensation function to make the water temperature adjustment easier to control.

[0008] The technical scheme adopted by the utility model to solve the above technical problem is as follows: the valve core with a water flow compensation function comprises a static valve plate and a moving valve plate, the moving valve plate is arranged above the static valve plate and can rotate and slide relative to the static valve plate, the static valve plate is provided with a cold water inlet hole, a hot water inlet hole and a mixed water outlet hole, the moving valve plate is further provided with a mixed cavity, a cold water compensation cavity and a hot water compensation cavity, and the mixed cavity is further connected with a first mixed water inlet and a second mixed water inlet;

[0009] In the state where the moving valve plate slides to the first position, the first mixed water inlet, the second mixed water inlet, the cold water inlet hole and the hot water inlet hole are in a staggered state, and the valve core is in a closed state;

[0010] In the state where the moving valve plate slides to the second position, the second mixed water inlet is in a staggered state with the cold water inlet hole and the hot water inlet hole, the first mixed water inlet can be communicated with the mixed water outlet hole, and the rotation of the moving valve plate can make the first mixed water inlet rotate to cover the cold water inlet hole and the hot water inlet hole to adjust the cold-hot water mixing ratio flowing into the mixed cavity;

[0011] In the state where the moving valve plate slides to the third position, the first mixed water inlet is communicated with the mixed water outlet hole, and the second mixed water inlet can be communicated with the cold water inlet hole;

[0012] In the state of the second position, when the moving valve plate rotates to the hot water flow ratio in the mixed cavity exceeds the cold water, the cold water compensation cavity can be communicated with the cold water inlet hole and the first mixed water inlet, so that the cold water is injected into the mixed cavity through the cold water compensation cavity to inhibit the rapid rise of water temperature; when the moving valve plate rotates to the cold water flow ratio in the mixed cavity exceeds the hot water, the hot water compensation cavity can be communicated with the hot water inlet hole and the first mixed water inlet, so that the hot water is injected into the mixed cavity through the hot water compensation cavity to inhibit the rapid drop of water temperature.

[0013] In order to optimize the hole structure of each water gap and the overall layout, preferably, the first mixed water gap and the second mixed water gap are arranged on the end surface of the dynamic valve sheet adhered to the static valve sheet and are spaced apart, the cold water compensation cavity and the hot water compensation cavity are formed on the end surface of the dynamic valve sheet adhered to the static valve sheet, and the cold water inlet hole, the hot water inlet hole and the mixed outlet hole all penetrate the static valve sheet.

[0014] In order to optimize the hole structure of the first mixed water gap, so that the cold water compensation cavity can better communicate between the cold water inlet hole and the first mixed water gap, and the hot water compensation cavity can better communicate between the hot water inlet hole and the first mixed water gap, preferably, the first mixed water gap includes a first water inlet area capable of connecting the mixed outlet hole when the dynamic valve sheet rotates and a second water inlet area capable of connecting the cold water inlet hole and the hot water inlet hole, the second water inlet area is located in the middle of the dynamic valve sheet, and the cold water compensation cavity and the hot water compensation cavity are distributed on both sides of the first water inlet area.

[0015] In order to optimize the cavity structure of the cold water compensation cavity and the hot water compensation cavity, preferably, the cold water compensation cavity extends along the circumference of the dynamic valve sheet to form an elongated arc-shaped slot, so that the cold water compensation cavity can timely communicate the cold water inlet hole and the mixed cavity when the dynamic valve sheet rotates to a set position, and the hot water compensation cavity extends along the circumference of the dynamic valve sheet to form an elongated arc-shaped slot, so that the hot water compensation cavity can timely communicate the hot water inlet hole and the mixed cavity when the dynamic valve sheet rotates to a set position.

[0016] In order to optimize the hole structure of the mixed water inlet, so that it can better connect with the cold water compensation cavity and the hot water compensation cavity, preferably, the cold water inlet hole and the hot water inlet hole extend along the circumference of the static valve sheet and form elongated arc-shaped holes, and the mixed outlet hole is fan-shaped and has an expansion area to expand the water receiving area.

[0017] In order to better control the water outlet of the valve core, preferably, a valve housing and a valve handle, a rotor and a dial are sequentially arranged from top to bottom, the static valve sheet is fixed at the bottom of the inner cavity of the valve housing, the dynamic valve sheet is arranged above the static valve sheet and can rotate and slide relative to the static valve sheet, the valve handle is hinged to the rotor and can reciprocatingly swing to drive the dial to move, the dial is constrained at the bottom of the rotor and can rotate with the rotor and slide relative to the rotor, and the dynamic valve sheet is fixed at the bottom surface of the dial.

[0018] The bottom of the valve housing is provided with a cold water inlet hole corresponding to the cold water inlet hole, a hot water inlet hole corresponding to the hot water inlet hole and a mixed water inlet hole corresponding to the mixed outlet hole.

[0019] In order to optimize the overall structure of the valve housing, so that the entire valve core can be better produced and assembled, preferably, the valve housing comprises an upper housing and a base, the base is detachably connected to the top of the upper housing through a detachable structure, the upper end of the valve handle is exposed on the top of the upper housing, and the cold water inlet, the hot water inlet and the mixed water inlet are all provided through the bottom of the base.

[0020] In order to make the detachable structure here better realize quick disassembly and quick positioning, preferably, the detachable structure comprises a buckle provided on the base and a clamping groove provided on the upper housing and adapted to the buckle, and the upper housing is further provided with a positioning groove, and the base is provided with a positioning block adapted to the positioning groove.

[0021] In order to limit the rotation of the rotor after rotating to the set position, preferably, the valve housing and the rotor are further provided with a limiting device for limiting the rotation of the rotor within a set angle, the limiting device comprises first and second limiting walls arranged in the interior of the valve housing and spaced apart in the circumferential direction, a third limiting wall formed on the side of the rotor and adapted to the first limiting wall, and a fourth limiting wall adapted to the second limiting wall, in the state that the rotor rotates counterclockwise to the set position, the first limiting wall can abut against the third limiting wall to limit the continuous rotation of the rotor, and in the state that the rotor rotates clockwise to the set position, the second limiting wall can abut against the fourth limiting wall to limit the continuous rotation of the rotor.

[0022] Compared with the prior art, the utility model has the advantages that: through setting the mixing cavity on the movable valve piece and making the mixing cavity communicate with the first and second mixed water inlets, the movable valve piece can be flexibly slid to different positions under the driving of external force to realize multiple water outlet modes, and the diversified water outlet modes fully adapt to different water use scenes, greatly improving the applicability and functionality of the faucet; and in terms of temperature adjustment accuracy, since the cold water compensation cavity and the hot water compensation cavity are specially arranged on the movable valve piece, when the movable valve piece slides to a specific working position and the water temperature needs to be adjusted, when the cold and hot water flow in the mixing cavity is rapidly unbalanced, the corresponding compensation cavity will rapidly intervene and play a compensation role, when the hot water flow suddenly increases, the cold water compensation cavity will rapidly connect the cold water inlet hole and the mixing cavity for cold water compensation, and when the cold water flow is too much, the hot water compensation cavity will timely supplement hot water to prevent the water temperature from suddenly dropping. The intelligent compensation mechanism effectively avoids the problem of water temperature fluctuation in the traditional valve core temperature adjustment process, so that the user can easily adjust and stabilize the water temperature in a comfortable range during the temperature adjustment process, and the water use experience of the user is improved. BRIEF DESCRIPTION OF DRAWINGS

[0023] Figure 1 It is a schematic diagram of the three-dimensional structure of the embodiment;

[0024] Figure 2It is a schematic diagram of the exploded state structure of the embodiment;

[0025] Figure 3 It is a schematic diagram of the three-dimensional structure of the moving valve plate in the embodiment;

[0026] Figure 4 It is a schematic diagram of the cooperation structure of the limiting device in the embodiment;

[0027] Figure 5 It is a schematic diagram of the cross-sectional structure of the embodiment (the moving valve plate slides to the first state, and the valve core is in the closed state);

[0028] Figure 6 It is a schematic diagram of the cross-sectional structure of the embodiment (the moving valve plate slides to the second state, and the valve core is in the regular mixed water outlet and adjustable water temperature state);

[0029] Figure 7 It is a schematic diagram of the cross-sectional structure of the embodiment (the moving valve plate slides to the third state, and the valve core switches to another water outlet mode);

[0030] Figure 8 It is a schematic diagram of the cooperation of the static valve plate and the moving valve plate in the embodiment (the moving valve plate slides to the first state, and the valve core is in the closed state);

[0031] Figure 9 It is a schematic diagram of the cooperation of the static valve plate and the moving valve plate in the embodiment (the moving valve plate slides to the second state, and the valve core is in the regular mixed water outlet and adjustable water temperature state);

[0032] Figure 10 It is a schematic diagram of the cooperation of the static valve plate and the moving valve plate in the embodiment (the moving valve plate slides to the third state, and the valve core switches to another water outlet mode);

[0033] Figure 11 It is a schematic diagram of the cooperation of the static valve plate and the moving valve plate in the embodiment (the valve core is in the open state, and the hot water compensation cavity is in the water compensation state);

[0034] Figure 12 It is a schematic diagram of the cooperation of the static valve plate and the moving valve plate in the embodiment (the valve core is in the open state, and the cold water compensation cavity is in the water compensation state). DETAILED DESCRIPTION

[0035] The utility model will be further described in detail below in combination with the embodiment of the drawings.

[0036] Figures 1-12 The schematic diagram of the embodiment is shown, and the valve core with the water flow compensation function of the embodiment mainly comprises a static valve plate 1, a moving valve plate 2, a valve shell 3, a valve handle 4, a rotor 5, a dial plate 6, a limiting device 7 and the like.

[0037] The valve core with water flow compensation function is described in detail below, including its specific structure, installation process and working principle, and the product operation mechanism is more intuitively presented in combination with the drawings. The structure and connection mode of the components are described in detail below in combination with the drawings.

[0038] Valve housing assembly: Referring to Figure 1 and Figure 2 , the valve housing 3 is composed of an upper shell 31 and a base 32, the base 32 is installed on the top of the upper shell 31 through a detachable structure, the detachable structure includes a buckle 32a provided on the base 32 and a clamping groove 31a provided on the upper shell 31 and capable of fitting the buckle 32a; at the same time, the upper shell 31 is provided with a positioning groove 31b, and the base 32 is provided with a positioning block 32b capable of fitting in the positioning groove 31b. This structure design not only facilitates installation, but also ensures the accuracy and stability of installation. From Figures 5 to 7 the cross-sectional structure diagram, it can be clearly seen that the bottom of the valve housing 3 is provided with a cold water inlet 3a, a hot water inlet 3b and a mixed water inlet 3c, which are respectively communicated with the cold water inlet hole 1a, the hot water inlet hole 1b and the mixed water outlet hole 1c on the static valve plate 1.

[0039] Static valve plate 1: The static valve plate 1 is fixed at the bottom of the inner cavity of the valve housing 3. As shown in Figure 2 , Figures 8 to 12 , the cold water inlet hole 1a and the hot water inlet hole 1b on it extend along the circumference of the static valve plate 1 and form long and narrow arc-shaped holes, and the mixed water outlet hole 1c is fan-shaped and provided with an expansion area 1c1 to expand the water receiving area, and these holes all penetrate the static valve plate 1.

[0040] Dynamic valve plate 2: The dynamic valve plate 2 is arranged above the static valve plate 1 and can rotate and slide relative to the static valve plate 1. As shown in Figure 3 the perspective structure diagram of the dynamic valve plate, the dynamic valve plate 2 is provided with a mixed cavity 2a, a cold water compensation cavity 2b and a hot water compensation cavity 2c, and the mixed cavity 2a is communicated with a first mixed water inlet 2a1 and a second mixed water inlet 2a2. The first mixed water inlet 2a1 and the second mixed water inlet 2a2 are both arranged on the end face of the dynamic valve plate 2 abutting against the static valve plate 1 and are spaced apart, and the cold water compensation cavity 2b and the hot water compensation cavity 2c are also formed on the end face. The first mixed water inlet 2a1 includes a first water inlet area 2a11 capable of connecting the mixed water outlet hole 1c when the dynamic valve plate 2 rotates and a second water inlet area 2a12 capable of connecting the cold water inlet hole 1a and the hot water inlet hole 1b, and the cold water compensation cavity 2b and the hot water compensation cavity 2c are distributed on the two sides of the first water inlet area 2a11, and the cold water compensation cavity 2b and the hot water compensation cavity 2c both extend along the circumference of the dynamic valve plate 2 to form long and narrow arc-shaped grooves. In Figures 8 to 12 the cooperation diagram, it can be clearly seen that the cooperation of each part of the dynamic valve plate 2 with the static valve plate 1 in different states.

[0041] Valve stem 3, rotor 4 and dial 5 assembly: valve stem 4 is hinged to rotor 5, valve stem 4 can reciprocate, its upper end is exposed on the top of upper shell 31, which is convenient for users to operate. Dial 6 is arranged below rotor 5, dial 6 is constrained on the bottom of rotor 5 and can rotate with rotor 5, at the same time, dial 6 can also slide relative to rotor 5. Moving valve plate 2 is fixed on the bottom surface of dial 6. In Figure 2 The exploded view of the disassembled state structure can clearly show the positional relationship of valve stem 4, rotor 5 and dial 6; in Figures 5 to 7 The sectional view of the assembled state structure can show the assembly of them in the valve core.

[0042] Limiting device 7: limiting device 7 is arranged between valve shell 3 and rotor 5. According to Figure 4 The matching structure diagram of the limiting device, limiting device 7 includes first limiting wall 7a and second limiting wall 7b which are arranged in valve shell 3 and are distributed along the circumference, and third limiting wall 7c and fourth limiting wall 7d which are formed on the side of rotor 5 and are matched with first limiting wall 7a and second limiting wall 7b respectively. When rotor 5 rotates to the set position, first limiting wall 7a abuts against third limiting wall 7c to limit the continuous rotation of third limiting wall 7c; when rotor 5 reverses to the set position, second limiting wall 7b abuts against fourth limiting wall 7d to limit the continuous rotation of fourth limiting wall 7d.

[0043] The specific working principle and working process of the valve core are described as follows:

[0044] The closed state of the valve core corresponds to Figure 5 , Figure 8 When moving valve plate 2 slides to the first position, referring to the sectional view of the assembled state structure in Figure 5 and the matching diagram of static valve plate and moving valve plate in Figure 8 , first mixed water inlet 2a1 and second mixed water inlet 2a2 are in a misaligned state with cold water inlet hole 1a and hot water inlet hole 1b, at this time, the valve core is in a closed state, and water flow cannot pass through.

[0045] The state of conventional mixed water outlet and adjustable water temperature corresponds to Figure 6 , Figure 9 , Figure 11 , Figure 12 Slide moving valve plate 2 to the second position, from the sectional view of the assembled state structure in Figure 6 and the matching diagram in Figure 9 , it can be seen that second mixed water inlet 2a2 is in a misaligned state with cold water inlet hole 1a and hot water inlet hole 1b, and first mixed water inlet 2a1 can be in communication with mixed water outlet hole 1c. Rotate valve stem 4, valve stem 4 drives rotor 5 and dial 6 to rotate, and then drives moving valve plate 2 to rotate, so that the second water inlet area 2a12 of first mixed water inlet 2a1 rotates to cover cold water inlet hole 1a and hot water inlet hole 1b, the mixing ratio of cold water and hot water flowing into mixing chamber 2a is adjusted, and water temperature adjustment is realized. During the adjustment process, if the hot water flow ratio in mixing chamber 2a exceeds cold water,Figure 12 As shown, the cold water compensation cavity 2b can be in communication with the cold water inlet hole 1a and the first mixed water port 2a1, and cold water is injected into the mixing cavity 2a through the cold water compensation cavity 2b to inhibit the sudden rise of water temperature; when the proportion of cold water flow in the mixing cavity 2a exceeds hot water, with reference to Figure 11 , the hot water compensation cavity 2c can be in communication with the hot water inlet hole 1b and the first mixed water port 2a1, and hot water is injected into the mixing cavity 2a through the hot water compensation cavity 2c to inhibit the sudden drop of water temperature.

[0046] Another water outlet mode corresponds Figure 7 , Figure 10 When the moving valve plate 2 slides to the third position, combined with the cross-sectional structure schematic view of Figure 7 and the cooperation schematic view of Figure 10 , the first mixed water port 2a1 is in communication with the mixed water outlet hole 1c, and the second mixed water port 2a2 can be in communication with the cold water inlet hole 1a, at this time the valve core is switched to another water outlet mode, which can meet the special functional requirements such as public toilet faucet delay closing. If you need to realize the function of delay closing, of course, you also need to cooperate with the corresponding control circuit and other external devices, which will not be described in detail here.

[0047] Through the cooperative work of the above-mentioned components, the valve core of the embodiment can realize the switching of multiple water outlet modes and accurate water temperature adjustment, effectively solve the problems existing in the traditional valve core, and improve the user's experience. Each drawing shows the structure and working condition of the valve core in different states from different angles, which helps to better understand the working principle and structural characteristics of the valve core.

[0048] It should be noted that in the description of the embodiment, the terms "front, rear, left, right, inner, outer, upper, lower" and the like indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the devices or elements referred to must have a particular orientation, be constructed and operated in a particular orientation, therefore cannot be understood as a limitation on the present application. The terms "mounting", "connection", "connection" should be understood broadly, for example, it can be fixed connection, or detachable connection, or integrally connected; it can be directly connected, or indirectly connected through an intermediate medium, or the communication between two elements. For those skilled in the art, the specific meaning of the above terms in the present application can be understood according to the specific circumstances.

Claims

1. A valve core with water flow compensation function, comprising a stationary valve plate (1) and a moving valve plate (2), wherein the moving valve plate (2) is disposed above the stationary valve plate (1) and can rotate and slide relative to the stationary valve plate (1), and the stationary valve plate (1) is provided with a cold water inlet hole (1a), a hot water inlet hole (1b) and a mixing outlet hole (1c), characterized in that: The moving valve plate (2) is also provided with a mixing chamber (2a), a cold water compensation chamber (2b) and a hot water compensation chamber (2c). The mixing chamber (2a) is also connected to a first mixing port (2a1) and a second mixing port (2a2). When the moving valve plate (2) is slid to the first position, the first mixing port (2a1), the second mixing port (2a2), the cold water inlet (1a), and the hot water inlet (1b) are all misaligned, and the valve core is in the closed state. When the moving valve plate (2) is slid to the second position, the second mixing port (2a2) is misaligned with the cold water inlet (1a) and the hot water inlet (1b). The first mixing port (2a1) can communicate with the mixing outlet (1c). The rotation of the moving valve plate (2) can cause the first mixing port (2a1) to rotate and cover the cold water inlet (1a) and the hot water inlet (1b) to adjust the mixing ratio of cold and hot water flowing into the mixing chamber (2a). When the moving valve plate (2) is slid to the third position, the first mixing port (2a1) is connected to the mixing outlet (1c), and the second mixing port (2a2) is connected to the cold water inlet (1a); In the second position, when the moving valve plate (2) rotates to the point where the proportion of hot water flow in the mixing chamber (2a) exceeds that of cold water, the cold water compensation chamber (2b) can be connected to the cold water inlet (1a) and the first mixing port (2a1) to allow cold water to be injected into the mixing chamber (2a) through the cold water compensation chamber (2b) to suppress a sudden rise in water temperature; when the moving valve plate (2) rotates to the point where the proportion of cold water flow in the mixing chamber (2a) exceeds that of hot water, the hot water compensation chamber (2c) can be connected to the hot water inlet (1b) and the first mixing port (2a1) to allow hot water to be injected into the mixing chamber (2a) through the hot water compensation chamber (2c) to suppress a sudden drop in water temperature.

2. The valve core with water flow compensation function according to claim 1, characterized in that: The first mixing port (2a1) and the second mixing port (2a2) are both opened on the end face of the moving valve plate (2) that is attached to the stationary valve plate (1) and are distributed at intervals. The cold water compensation chamber (2b) and the hot water compensation chamber (2c) are both formed on the end face of the moving valve plate (2) that is attached to the stationary valve plate (1). The cold water inlet hole (1a), the hot water inlet hole (1b) and the mixing outlet hole (1c) all penetrate the stationary valve plate (1).

3. The valve core with water flow compensation function according to claim 1, characterized in that: The first mixing port (2a1) includes a first inlet area (2a11) that can connect to the mixing outlet hole (1c) when the moving valve plate (2) rotates, and a second inlet area (2a12) that can connect to the cold water inlet hole (1a) and the hot water inlet hole (1b). The second inlet area (2a12) is located in the middle of the moving valve plate (2). The cold water compensation chamber (2b) and the hot water compensation chamber (2c) are distributed opposite to each other on both sides of the first inlet area (2a11).

4. The valve core with water flow compensation function according to claim 1, characterized in that: The cold water compensation chamber (2b) extends circumferentially along the moving valve plate (2) to form a long and narrow arc-shaped groove, so that the cold water compensation chamber (2b) can connect the cold water inlet hole (1a) and the mixing chamber (2a) in time when the moving valve plate (2) rotates to the set position. The hot water compensation chamber (2c) extends circumferentially along the moving valve plate (2) to form a long and narrow arc-shaped groove, so that the hot water compensation chamber (2c) can connect the hot water inlet hole (1b) and the mixing chamber (2a) in time when the moving valve plate (2) rotates to the set position.

5. The valve core with water flow compensation function according to claim 1, characterized in that: The cold water inlet hole (1a) and the hot water inlet hole (1b) extend circumferentially along the static valve plate (1) and form a narrow arc-shaped hole. The mixing outlet hole (1c) is fan-shaped and forms an extension area (1c1) to expand the water receiving area.

6. The valve core with water flow compensation function according to any one of claims 1 to 5, characterized in that: It also includes a valve housing (3) and a valve handle (4), a rotor (5), and a dial (6) arranged sequentially from top to bottom. The stationary valve plate (1) is fixed at the bottom of the inner cavity of the valve housing (3). The moving valve plate (2) is located above the stationary valve plate (1) and can rotate and slide relative to the stationary valve plate (1). The valve handle (4) is hinged to the rotor (5) and can swing back and forth to drive the dial (6) to move. The dial (6) is constrained at the bottom of the rotor (5) and can rotate with the rotor (5) and slide relative to the rotor (5). The moving valve plate (2) is fixed to the bottom surface of the dial (6). The bottom of the valve housing (3) is provided with a cold water inlet (3a) corresponding to the cold water inlet hole (1a), a hot water inlet (3b) corresponding to the hot water inlet hole (1b), and a mixing inlet (3c) corresponding to the mixing outlet hole (1c).

7. The valve core with water flow compensation function according to claim 6, characterized in that: The valve housing (3) includes an upper shell (31) and a base (32). The base (32) is detachably connected to the top of the upper shell (31) by means of a detachable structure. The upper end of the valve handle (4) is exposed on the top of the upper shell (31). The cold water inlet (3a), hot water inlet (3b) and mixing inlet (3c) are all opened through the bottom of the base (32).

8. The valve core with water flow compensation function according to claim 7, characterized in that: The detachable structure includes a buckle (32a) on the base (32) and a slot (31a) on the upper shell (31) that can be adapted to the buckle (32a). The upper shell (31) is also provided with a positioning slot (31b), and the base (32) is provided with a positioning block (32b) that can be adapted to the positioning slot (31b).

9. The valve core with water flow compensation function according to claim 6, characterized in that: A limiting device (7) is provided between the valve housing (3) and the rotor (5) to restrict the rotor (5) to rotate only within a set angle. The limiting device (7) includes a first limiting wall (7a) and a second limiting wall (7b) disposed inside the valve housing (3) and spaced apart along the circumference, a third limiting wall (7c) formed on the side of the rotor (5) and adapted to the first limiting wall (7a), and a fourth limiting wall (7d) adapted to the second limiting wall (7b). When the rotor (5) rotates counterclockwise to the set position, the first limiting wall (7a) can abut against the third limiting wall (7c) to restrict the rotor (5) from continuing to rotate. When the rotor (5) rotates clockwise to the set position, the second limiting wall (7b) can abut against the fourth limiting wall (7d) to restrict the rotor (5) from continuing to rotate.

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