An intelligent water supply pump house integrated with the function of tap water pretreatment

Abstract

The present invention relates to the technical field of intelligent water supply, and specifically relates to an intelligent water delivery pump house integrating the function of tap water pretreatment, including an adding mechanism. The adding mechanism includes a shunt pipe, a feeding structure, a material supply structure, and a collecting pipe; the shunt pipe has at least two shunt ports; there are two feeding structures, and the two feeding structures are respectively connected to the two shunt ports of the shunt pipe. The feeding structure includes a mixing pipe, a storage and discharging structure, and a lifting structure. The mixing pipe is arranged between the shunt pipe and the collecting pipe, the lower end of the storage and discharging structure is located inside the mixing pipe, and the lifting structure is arranged at the upper end of the storage and discharging structure; the material supply structure is connected to the storage and discharging structure; the collecting pipe has at least two collecting ports, and the two collecting ports are respectively connected to the two mixing pipes; the present invention sets the shunt pipe, the feeding structure, the material supply structure, and the collecting pipe, so as to realize the contact between the material and the tap water at different water layers, and enable the tap water at different water layers to react with the material.

Description

Technical Field

[0001] The present invention relates to the technical field of intelligent water supply, and in particular to an intelligent water supply pump room with integrated tap water pretreatment function. Background Art

[0002] With the acceleration of urbanization and the improvement of people's living standards, higher requirements are placed on the quality and stability of tap water supply. In traditional water pumping stations, tap water is usually directly delivered to the user end through pipes, lacking the necessary pretreatment links, resulting in impurities, odors and other problems in the water quality.

[0003] The patent with announcement number CN212712883U discloses a flocculant dosing device, and the dosing process is as follows: pour the flocculant into the feeding pipe from the feeding port, then start the feeding motor to drive the feeding screw to rotate, the feeding screw drives the flocculant to be evenly output into the hopper, then the working motor drives the brush roller to rotate, the brush roller grinds the flocculant into powder, and evenly drives the powdered flocculant into the discharge pipe, and the flocculant continues to fall onto the fixed screen after entering the discharge pipe. At this time, the movable screen is in the initial position and close to the fixed screen, that is, the mesh of the movable screen is aligned with the mesh of the fixed screen. The two meshes are staggered so that the flocculant cannot fall from the sieve holes of the fixed screen. Then the driving motor drives the driving reduction box to work, and the driving reduction box drives the rotating wheel to rotate, so that the rotating shaft rotates around the center of the rotating wheel to drive the connecting rod, the slider and the movable screen to move back and forth, so that the sieve holes of the movable screen and the sieve holes of the fixed screen are constantly staggered and overlapped, so that the flocculant on the fixed screen passes through the movable screen evenly and falls into the water tank, and the water pump is always in working state, and water is introduced into the water tank through the water inlet pipe and then flows out from the water outlet pipe, so that the water in the water tank receives the flocculant and flows continuously and flows out of the water tank.

[0004] Although the flocculant in the above scheme falls evenly into the flowing water to achieve uniform feeding and automatic mixing, the storage pipe is at a certain distance from the water surface. The flocculant falling from the movable screen will contact the water flow on the upper surface of the water tank. The flocculant moves with the water flow. Before the flocculant moves to the lower layer of the water flow, the flocculant is completely dissolved in the water, resulting in the water flow in the lower layer of the water tank being unable to react with the flocculant. Summary of the invention

[0005] In view of the above problems, an intelligent water supply pump room with integrated tap water pretreatment function is provided. By setting a diversion pipe, a feeding structure, a supply structure and a collecting pipe, the material can be in contact with the tap water of different water layers, so that the tap water of different water layers can react with the material.

[0006] In order to solve the problems of the prior art, the present invention provides an intelligent water delivery pump room with integrated tap water pretreatment function, comprising a water room and an inlet pipe, a adding mechanism, a filtering structure and an outlet pipe which are arranged in the water room and connected in sequence, the adding mechanism comprising a diverter pipe, a adding structure, a feeding structure and a collecting pipe; the middle part of the diverter pipe is connected to the water inlet pipe, and the diverter pipe has at least two diverter ports; there are two adding structures, and the two adding structures are respectively connected to the two diverter ports of the diverter pipe, the adding structure comprises a mixing pipe, a material storage and discharge structure and a lifting structure, the two ends of the mixing pipe are respectively connected to the diverter pipe and the collecting pipe, the material storage and discharge structure is arranged at the upper end of the mixing pipe, and the lower end of the material storage and discharge structure is located inside the mixing pipe, and the lifting structure is arranged at the upper end of the material storage and discharge structure; the feeding structure is arranged between the two adding structures, and the feeding structure is connected to the material storage and discharge structure; the middle part of the collecting pipe is connected to the filtering structure, and the collecting pipe has at least two collecting ports, and the two collecting ports are respectively connected to the two mixing pipes.

[0007] Preferably, the material storage and discharging structure includes a storage barrel, a mixing cover, a stirring assembly and an opening and closing structure; the storage barrel is coaxially arranged with the mixing tube, the lower end of the storage barrel is inserted in the mixing tube, and the upper end of the storage barrel is symmetrically provided with two first feed ports about its own axis; the mixing cover is arranged at the lower end of the storage barrel, and the mixing cover is provided with a second water inlet and a second water outlet; the stirring assembly is arranged inside the storage barrel; the opening and closing structure is arranged at the upper end inside the storage barrel, and the opening and closing structure corresponds to the two first feed ports.

[0008] Preferably, the stirring assembly includes a first rotating shaft, a first spiral blade and an unpowered fan blade; the first rotating shaft is coaxially arranged with the storage barrel, and one end of the first rotating shaft extends downwardly out of a mixing cover; the first spiral blade is arranged inside the storage barrel, and the first spiral blade is connected to the first rotating shaft; the unpowered fan blade is connected to one end of the first rotating shaft extending out of the mixing cover.

[0009] Preferably, the material storage and discharge structure also includes a sealing structure, which includes a sealing tube and a sealing assembly; the sealing tube cover is arranged on the outside of the material storage barrel, the upper end of the sealing tube is provided with a docking port corresponding to the two first feed ports, the lower end of the sealing tube extends into the interior of the mixing tube, and the sealing tube is fixedly connected to the mixing tube; the sealing assembly is arranged at the lower end of the sealing tube.

[0010] Preferably, the lifting structure includes a first lifting drive and a reset assist structure; the first lifting drive is arranged at the upper end of the sealing tube, and the output end of the first lifting drive is connected to the storage barrel; the reset assist structure is arranged at the middle position of the bottom of the mixing tube, and the reset assist structure is connected to the lower end of the storage and discharge structure.

[0011] Preferably, the feeding structure includes two bidirectional feeding components and four plug-in components; the two bidirectional feeding components are arranged on both sides of the line connecting the two material storage and discharge structures; the four plug-in components are divided into a group of two, and the two plug-in components in a group are respectively arranged at the two ends of the bidirectional feeding component, and the two plug-in components correspond to the two material storage and discharge structures respectively.

[0012] Preferably, the feeding structure also includes a storage and feeding assembly, which includes a storage tank and a main feeding assembly; the storage tank is arranged between the two storage and discharge structures; the main feeding assembly is arranged in the storage tank, and the upper end of the main feeding assembly is connected to the two two-way feeding assemblies.

[0013] Preferably, the material storage and feeding assembly includes a downward pressing structure, and the downward pressing structure is arranged at the upper end of the material storage tank.

[0014] Preferably, the feeding structure further comprises two plug-in drive assemblies, which are respectively arranged on both sides of the material storage and feeding assembly, and the plug-in drive assembly is connected to the two bidirectional feeding assemblies.

[0015] Preferably, the opening and closing structure includes two first guide rods, two first springs and two sealing plates; the two first guide rods are arranged in parallel, and the two ends of the first guide rods are respectively facing the two first feed ports; the two first springs are respectively sleeved on the middle parts of the two first springs; the two sealing plates respectively correspond to the two first feed ports, and the two ends of the sealing plates are respectively slidably connected to the two first guide rods.

[0016] Compared with the prior art, the present invention has the following beneficial effects: 1. The present invention is provided with a shunt pipe, a feeding structure, a supply structure and a collecting pipe. The tap water is evenly distributed to a plurality of feeding structures through the shunt pipe. The mixing pipe in each feeding structure ensures that the tap water can fully contact with the purification material. The supply structure automatically replenishes the material according to the material consumption, and keeps the material in the storage and discharge structure sufficient without frequent manual intervention. The storage and discharge structure is driven by the lifting structure to perform a reciprocating lifting motion in the mixing pipe, so that the tap water in different water layers can effectively contact with the material. The material is simultaneously carried by the tap water in different water layers and evenly dispersed in the water flow, thereby realizing the contact between the material and the tap water in different water layers, so that the tap water in different water layers can react with the material.

[0017] 2. The present invention is provided with a storage barrel, a mixing cover, a stirring assembly and an opening and closing structure. The storage barrel enables the materials to be stored centrally during the adding stage. The opening and closing structure is used to realize the opening and closing of the first feeding port of the storage barrel. The stirring assembly effectively promotes the downward conveyance of the materials in the storage barrel, avoids the accumulation and sticking of the materials in the storage barrel, and at the same time enables the materials to be more evenly dispersed in the tap water, thereby improving the mixing efficiency and quality, thereby realizing the continuous and equal conveyance of the materials and the mixing with the tap water, significantly improving the mixing uniformity, and avoiding the problem of the materials sticking together.

[0018] 3. The present invention is provided with a first rotating shaft, a first spiral blade and an unpowered fan blade. The unpowered fan blade rotates by using the power generated by the flow of tap water, and does not require external energy to drive it, thereby reducing energy consumption. The rigid connection between the unpowered fan blade and the first rotating shaft ensures the effective transmission of the rotational force, so that the first spiral blade can rotate in the same direction as the flow of tap water. At the same time, an increase in the flow rate of tap water leads to an increase in the rotation speed of the unpowered fan blade, thereby driving the first spiral blade to rotate at a higher speed, thereby realizing the function of automatically adjusting the material feed amount according to the water flow rate, thereby ensuring the stability of the mixing ratio of the material and tap water, and improving the mixing efficiency and mixing quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a stereoscopic diagram of a water inlet pipe, an adding mechanism, a filtering structure and a water outlet pipe in an intelligent water delivery pump room with integrated tap water pretreatment function according to the present invention.

[0020] Figure 2 It is a stereoscopic diagram of an adding mechanism in an intelligent water delivery pump room with integrated tap water pretreatment function according to the present invention.

[0021] Figure 3 It is a left view of a charging structure and a feeding structure in an intelligent water delivery pump room with integrated tap water pretreatment function according to the present invention.

[0022] Figure 4 yes Figure 3 Stereoscopic cross-sectional view at AA in the middle.

[0023] Figure 5 It is a three-dimensional diagram of a material storage barrel, a mixing cover, a stirring assembly and an opening and closing structure in an intelligent water delivery pump room with integrated tap water pretreatment function of the present invention.

[0024] Figure 6 It is a stereoscopic diagram of a mixing cover and a stirring assembly in an intelligent water delivery pump room with integrated tap water pretreatment function according to the present invention.

[0025] Figure 7 It is a three-dimensional diagram of the opening and closing structure of an intelligent water pump room with integrated tap water pretreatment function according to the present invention.

[0026] Figure 8 It is a stereoscopic diagram of a material storage barrel, a mixing cover and a sealing structure in an intelligent water delivery pump room with integrated tap water pretreatment function according to the present invention.

[0027] Fig. 9 It is a stereoscopic diagram of a material storage barrel, a mixing cover, a sealing pipe and a lifting structure in an intelligent water delivery pump room with integrated tap water pretreatment function of the present invention.

[0028] Fig.10 It is a three-dimensional cross-sectional view of a two-way feeding component and a plug-in component in an intelligent water delivery pump room with integrated tap water pretreatment function according to the present invention.

[0029] Fig.11 It is a stereoscopic diagram of a two-way feeding component, a material storage and feeding component and a plug-in drive component in an intelligent water delivery pump room with integrated tap water pretreatment function of the present invention.

[0030] Fig.12 It is an exploded view of the main supply components in an intelligent water delivery pump room with integrated tap water pretreatment function according to the present invention.

[0031] Fig.13 It is a stereoscopic diagram of a main material supply component and a downward pressure structure in an intelligent water delivery pump room with integrated tap water pretreatment function according to the present invention.

[0032] Fig.14 It is a three-dimensional diagram of a support plate of a two-way feeding component and a plug-in drive component in an intelligent water delivery pump room with integrated tap water pretreatment function of the present invention.

[0033] The numbers in the figure are: 1, shunt pipe; 2, feeding structure; 21, mixing pipe; 22, material storage and discharge structure; 221, material storage barrel; 222, mixing cover; 223, stirring assembly; 2231, first rotating shaft; 2232, first spiral blade; 2233, unpowered fan blade; 224, opening and closing structure; 2241, first guide rod; 2242, first spring; 2243, sealing plate; 23, sealing structure; 231, sealing pipe; 232, sealing assembly; 2321, sealing block; 2322, docking block; 24, lifting structure; 241, first lifting drive; 242, reset assist structure; 2421, second guide rod; 2422, The second spring; 3. Feeding structure; 31. Two-way feeding assembly; 311. First feeding pipe; 312. Second rotating shaft; 313. Second spiral blade; 32. Plug-in assembly; 321. Butt-joint pipe; 322. L-shaped guide pipe; 33. Storage feeding assembly; 331. Storage tank; 332. Main feeding assembly; 3321. Second feeding pipe; 3322. Plug-in pipe; 3323. Third rotating shaft; 3324. Third spiral blade; 333. Pressing down structure; 3331. Support plate; 3332. Pressing down plate; 3333. Second lifting drive; 34. Plug-in drive assembly; 341. Connecting ring; 342. Linear drive; 4. Collecting pipe. DETAILED DESCRIPTION

[0034] In order to further understand the features, technical means, specific objectives and functions of the present invention, the present invention is further described in detail below in conjunction with the accompanying drawings and specific implementation methods.

[0035] Reference Figures 1 to 14 As shown: an intelligent water delivery pump room with integrated tap water pretreatment function, including a water room and an inlet pipe, a adding mechanism, a filtering structure and an outlet pipe connected in sequence in the water room, the adding mechanism including a diverter pipe 1, a adding structure 2, a feeding structure 3 and a collecting pipe 4; the middle part of the diverter pipe 1 is connected to the water inlet pipe, and the diverter pipe 1 has at least two diverter ports; the adding structure 2 has two, and the two adding structures 2 are respectively connected to the two diverter ports of the diverter pipe 1, the adding structure 2 includes a mixing pipe 21, a material storage and discharge structure 22 and a lifting structure 24, and the two ends of the mixing pipe 21 are respectively connected to the diverter pipe 1 and the collecting pipe 4 A first water inlet and a first water outlet are respectively provided at both ends of the mixing tube 21, the first water inlet is connected to the diverter pipe 1, and the first water outlet is connected to the collecting pipe 4, a material storage and discharging structure 22 is arranged at the upper end of the mixing tube 21, and the lower end of the material storage and discharging structure 22 is located inside the mixing tube 21, and a lifting structure 24 is arranged at the upper end of the material storage and discharging structure 22; a feeding structure 3 is arranged between the two feeding structures 2, and the feeding structure 3 is connected to the material storage and discharging structure 22; the middle part of the collecting pipe 4 is connected to the filtering structure, and the collecting pipe 4 has at least two collecting ports, and the two collecting ports are respectively connected to the two mixing tubes 21.

[0036] In the intelligent water delivery pump room with integrated tap water pretreatment function, tap water first enters the water room through the water inlet pipe, and then the tap water is evenly distributed into at least two water flows by the diversion pipe 1, and each water flow is respectively directed to a feeding structure 2, each feeding structure 2 includes a mixing tube 21, and the two ends of the mixing tube 21 are respectively provided with a first water inlet and a first water outlet to achieve connection with the diversion pipe 1 and the collecting pipe 4. The tap water enters the mixing tube 21 through the first water inlet, and a storage and discharge structure 22 is installed on the upper part of the mixing tube 21. The storage and discharge structure 22 is pre-filled with the materials required for purification, and the lower end of the storage and discharge structure 22 is immersed in In the tap water of the mixing tube 21, at the same time, the lifting structure 24 drives the storage and discharge structure 22, so that the storage and discharge structure 22 performs reciprocating lifting and lowering motion in the mixing tube 21. This dynamic process ensures that the tap water of different water layers in the mixing tube 21 can effectively contact the storage and discharge structure 22. In addition, the feeding structure 3 continuously replenishes materials into the storage and discharge structure 22 to ensure sufficient material supply. In the contact process between the tap water and the storage and discharge structure 22, the material is carried by the tap water and evenly dispersed in the water flow, thereby realizing the contact between the material and the tap water of different water layers, so that the tap water of different water layers can react with the material.

[0037] Reference Figure 4 and Figure 5 As shown: the material storage and discharging structure 22 includes a material storage barrel 221, a mixing cover 222, a stirring assembly 223 and an opening and closing structure 224; the material storage barrel 221 is coaxially arranged with the mixing tube 21, the lower end of the material storage barrel 221 is inserted into the mixing tube 21, and the upper end of the material storage barrel 221 is symmetrically provided with two first feed ports about its own axis; the mixing cover 222 is arranged at the lower end of the material storage barrel 221, and a second water inlet and a second water outlet are provided on the mixing cover 222, the second water inlet faces the diverter pipe 1, and the second water outlet faces the collecting pipe 4; the stirring assembly 223 is arranged inside the material storage barrel 221; the opening and closing structure 224 is arranged at the upper end inside the material storage barrel 221, and the opening and closing structure 224 corresponds to the two first feed ports.

[0038] Due to its own water pressure, the tap water in the storage barrel 221 will enter the storage and discharge structure 22. When there is a large amount of material in the storage and discharge structure 22, the material cannot be fully integrated into the tap water at the first time, causing some of the material to stick together and become inconvenient to quickly mix with the tap water. By setting the storage barrel 221, the mixing cover 222, the stirring component 223 and the opening and closing structure 224, in the material adding stage, the opening and closing structure 224 opens the two first feed ports to allow the material to enter the storage barrel 221 for storage. When the material in the storage barrel 221 is sufficient, the opening and closing structure 224 closes the first feed port, and then the lifting structure 24 is started to drive the storage barrel 221 downward. Move, tap water enters the mixing cover 222 through the second water inlet, and at the same time, the stirring component 223 starts to work, stirs the material in the storage barrel 221 and transports it to the mixing cover 222 area. This process ensures that the material can continuously and equally enter the mixing cover 222 and contact with the tap water, effectively avoiding the problem of uneven mixing caused by direct contact between a large amount of material and a small amount of tap water. With the continuous inflow of tap water, the evenly mixed material-water mixture flows into the collecting pipe 4 through the second water outlet for subsequent filtration treatment, thereby realizing the continuous and equal transportation of the material and the mixing with the tap water, significantly improving the mixing uniformity, and avoiding the problem of the material sticking together.

[0039] Reference Figure 4 and Figure 6 As shown: the stirring assembly 223 includes a first rotating shaft 2231, a first spiral blade 2232 and an unpowered fan blade 2233; the first rotating shaft 2231 is coaxially arranged with the storage barrel 221, and one end of the first rotating shaft 2231 extends downwardly from the mixing cover 222; the first spiral blade 2232 is arranged inside the storage barrel 221, and the first spiral blade 2232 is connected to the first rotating shaft 2231; the unpowered fan blade 2233 is connected to one end of the first rotating shaft 2231 extending out of the mixing cover 222.

[0040] When tap water flows through the mixing tube 21, the stable flow of tap water exerts a continuous and constant direction force on the unpowered fan blade 2233. Since the unpowered fan blade 2233 is rigidly connected to the first rotating shaft 2231 and is subject to the rotation constraint of the first rotating shaft 2231, the unpowered fan blade 2233 can drive the first rotating shaft 2231 to rotate around the axis of the first rotating shaft 2231. As the first rotating shaft 2231 rotates, the first spiral blade 2232 also rotates. The rotation direction of the first spiral blade 2232 is determined by the fixed flow direction of the tap water, ensuring material transportation. The consistency and stability of the unpowered fan blade 2233 are improved, and the rotation speed of the unpowered fan blade 2233 is proportional to the flow rate of the tap water. When the flow rate of the tap water increases, the impact force on the unpowered fan blade 2233 increases, and the rotation speed increases accordingly, thereby driving the first spiral blade 2232 to rotate at a higher speed through the first rotating shaft 2231, so that the amount of material that can be transported by the first spiral blade 2232 per unit time increases, and the function of the material storage and discharge structure 22 automatically adjusting the material feeding amount according to the flow rate of the tap water is realized, thereby ensuring the stability of the mixing ratio of the material and the tap water, and improving the mixing efficiency and mixing quality.

[0041] Reference Figure 3 , Figure 4 and Figure 8 As shown: the feeding structure 2 also includes a sealing structure 23, and the sealing structure 23 includes a sealing tube 231 and a sealing assembly 232; the sealing tube 231 is covered on the outside of the storage barrel 221, and the upper end of the sealing tube 231 is provided with a docking interface corresponding to the two first feed ports, the lower end of the sealing tube 231 extends into the interior of the mixing tube 21, and the sealing tube 231 is fixedly connected to the mixing tube 21; the sealing assembly 232 is arranged at the lower end of the sealing tube 231, and the sealing assembly 232 includes a sealing block 2321 and a docking block 2322, the sealing block 2321 is fixedly connected to the lower end of the sealing tube 231, and the sealing block 2321 is provided with a receiving groove that cooperates with the mixing cover 222, and the docking block 2322 is fixedly connected to the mixing cover 222.

[0042] After the material is put into the material barrel 221, the tap water may try to enter the material barrel 221 due to the water pressure. By setting the sealing structure 23, the sealing tube 231 limits the freedom of movement of the material barrel 221, effectively preventing the material barrel 221 from tilting, thereby avoiding the improper increase of the gap at the connection between the material barrel 221 and the mixing tube 21. When it is necessary to add material to the material barrel 221, the lifting structure 24 is started to drive the material barrel 221 to move upward as a whole. The movement of the material barrel 221 drives the docking block 2322 to move toward the sealing block 2321 until the mixing cover 222 is completely embedded in the receiving groove in the sealing block 2321. At this time, the docking block 2322 is tightly fitted with the sealing block 2321 to form an effective sealing barrier, which completely blocks the path for tap water to enter the material barrel 221, thereby ensuring that the tap water will not leak out from the first feed port of the material barrel 221.

[0043] Reference Figure 4 and Fig. 9 As shown: the lifting structure 24 includes a first lifting driver 241 and a reset assist structure 242; the first lifting driver 241 is arranged at the upper end of the sealing tube 231, and the output end of the first lifting driver 241 is connected to the storage barrel 221; the reset assist structure 242 is arranged at the middle position of the bottom of the mixing tube 21, and the reset assist structure 242 is connected to the lower end of the storage and discharge structure 22, and the reset assist structure 242 includes a second guide rod 2421 and a second spring 2422, the second guide rod 2421 is coaxially arranged with the first rotating shaft 2231, and one end of the second guide rod 2421 is inserted into the interior of the first rotating shaft 2231, and the second spring 2422 is sleeved on the second guide rod 2421, and the two ends of the second spring 2422 are respectively abutted against the end of the second guide rod 2421 and the end of the first rotating shaft 2231.

[0044] When the first lifting drive 241 starts and drives the material storage and discharge structure 22 downward, the first rotating shaft 2231 moves axially along the second guide rod 2421. During this process, the end face of the first rotating shaft 2231 applies a downward force to the second spring 2422, causing the second spring 2422 to be compressed and store elastic potential energy. When the first lifting drive 241 operates in the opposite direction to drive the material storage and discharge structure 22 upward, the second spring 2422 releases the elastic potential energy stored previously, generating an upward assist for the material storage and discharge structure 22, reducing the resistance that the first lifting drive 241 needs to overcome, thereby effectively assisting the up and down reciprocating motion of the material storage and discharge structure 22, and significantly improving the smoothness and efficiency of the motion.

[0045] Reference Figure 4 and Fig.10As shown: the feeding structure 3 includes two bidirectional feeding components 31 and four plug-in components 32; the two bidirectional feeding components 31 are arranged on both sides of the connection line of the two material storage and discharge structures 22, the bidirectional feeding component 31 includes a first feeding pipe 311, a second rotating shaft 312 and two second spiral blades 313, the first feeding pipe 311 is arranged horizontally, the second rotating shaft 312 is coaxially arranged inside the first feeding pipe 311, the two second spiral blades 313 are respectively arranged at both ends of the second rotating shaft 312, and the spiral directions of the two second spiral blades 313 are opposite; the four plug-in components 32 Every two are divided into a group, and the two plug-in components 32 in a group are respectively arranged at the two ends of the two-way feeding component 31, and the two plug-in components 32 respectively correspond to the two material storage and discharge structures 22. The plug-in components 32 include a docking tube 321 and an L-shaped material guide tube 322. The docking tube 321 corresponds to the docking port on the sealing tube 231. One end of the L-shaped material guide tube 322 is inserted into the docking tube 321, and the L-shaped material guide tube 322 is slidably connected to the docking tube 321. One end of the L-shaped material guide tube 322 is provided with a discharge port, and the other end of the L-shaped material guide tube 322 is connected to the first feeding pipe 311.

[0046] When the storage barrel 221 needs to be replenished with material, the storage barrel 221 first rises to align the two first feed ports of the storage barrel 221 with the two docking ports on the sealing tube 231, and then the L-shaped guide tube 322 slides along the docking tube 321 into the storage barrel 221 to open the first feed port until the discharge port of the L-shaped guide tube 322 is completely placed in the storage barrel 221. At this time, the two-way feeding assembly 31 is started, and the second rotating shaft 312 rotates, driving the two second spiral blades 313 to rotate synchronously. Since the spiral directions of the two second spiral blades 313 are opposite, the material is evenly dispersed in the middle of the first feeding tube 311 and pushed to both ends, thereby realizing synchronous material replenishment of the two storage barrels 221.

[0047] Reference Figure 2 , Figure 4 , Fig.11 and Fig.12As shown: the feeding structure 3 also includes a material storage and feeding component 33, which includes a material storage tank 331 and a main material supply component 332; the material storage tank 331 is arranged between the two material storage and discharge structures 22; the main material supply component 332 is arranged in the material storage tank 331, and the upper end of the main material supply component 332 is connected to the two bidirectional material supply components 31, and the main material supply component 332 includes a second material supply pipe 3321, two plug-in pipes 3322, a third rotating shaft 3323 and a third spiral Blade 3324, the second feed pipe 3321 is vertically arranged in the storage tank 331, the second feed pipe 3321 has a second feed port at the lower end, two plug-in tubes 3322 are respectively arranged on both sides of the upper end of the second feed pipe 3321, and the two plug-in tubes 3322 are respectively inserted into the middle of the two first feed pipes 311, the third rotating shaft 3323 is coaxially arranged inside the second feed pipe 3321, and the third spiral blade 3324 is fixed on the third rotating shaft 3323.

[0048] The storage tank 331 stores materials. When the two two-way feeding components 31 are started synchronously, the main feeding component 332 works at the same time, and the third rotating shaft 3323 starts to rotate, driving the third spiral blade 3324 to transport materials in the second feeding pipe 3321. Under the push of the third spiral blade 3324, the material is continuously transported upward from the lower end of the second feeding pipe 3321. At the same time, the material in the storage tank 331 continuously enters the second feeding pipe 3321 through the second feeding port, ensuring the continuity of the material flow. When the material is lifted to the height of the plug-in tube 3322, the material will flow along the two plug-in tubes 3322 to the two two-way feeding components 31 respectively, thereby realizing the synchronous material supply to the two two-way feeding components 31.

[0049] Reference Fig.11 and Fig.13 As shown: the material storage and feeding assembly 33 includes a downward pressure structure 333, which is arranged at the upper end of the material storage tank 331. The downward pressure structure 333 includes a support plate 3331, a lower pressure plate 3332 and two second lifting drivers 3333. The support plate 3331 is horizontally arranged, and the two ends of the support plate 3331 are respectively connected to the two material storage and discharge structures 22. The lower pressure plate 3332 is arranged in parallel below the support plate 3331. The two second lifting drivers 3333 are symmetrically arranged about the axis of the lower pressure plate 3332. The second lifting driver 3333 is fixed on the support plate 3331, and the output end of the second lifting driver 3333 is connected to the lower pressure plate 3332.

[0050] While the storage tank 331 is set at a lower position to facilitate the addition of materials, in order to ensure the smoothness of the upward transportation of materials, the downward pressure structure 333 works. When the main feeding component 332 starts to work, the two second lifting drivers 3333 start synchronously to apply a continuous downward force to the lower pressure plate 3332. After receiving the driving force, the lower pressure plate 3332 evenly transfers the pressure exerted on the lower pressure plate 3332 to the material below, forcing the material to remain in a tightly stacked state. In this process, the material is pushed by the rotation of the third spiral blade 3324 in the main feeding component 332 and the downward pressure provided by the lower pressure plate 3332. The two work together to ensure that the material can be smoothly lifted and move upward along the second feeding pipe 3321.

[0051] Reference Fig.11 and Fig.14 As shown: the feeding structure 3 also includes two plug-in drive assemblies 34, the two plug-in drive assemblies 34 are respectively arranged on both sides of the storage and feeding assembly 33, the plug-in drive assembly 34 is connected to the two bidirectional feeding assemblies 31, the plug-in drive assembly 34 includes two connecting rings 341 and two linear drives 342, the two connecting rings 341 are respectively connected to the two first feeding pipes 311, the two linear drives 342 are respectively connected to the two connecting rings 341, and the driving direction of the linear drive 342 is parallel to the moving direction of the L-shaped guide tube 322.

[0052] When the feeding structure 3 conveys materials into the storage barrel 221, one end of the L-shaped guide tube 322 needs to be inserted into the interior of the storage barrel 221 along the docking tube 321. At this time, the two plug-in drive components 34 are started synchronously, and a balanced force is applied to both ends of the first feeding tube 311 at the same time to ensure the stable movement of the L-shaped guide tube 322. The direction of the force applied by the linear drive 342 is consistent with the docking tube 321, pushing the L-shaped guide tube 322 to perform smooth translational movement along the docking tube 321. Since both ends of the first feeding tube 311 are subjected to the balanced force from the plug-in drive component 34, during the translation process of the L-shaped guide tube 322, it can effectively avoid collision with the docking tube 321, ensuring that the L-shaped guide tube 322 can be accurately inserted into the storage barrel 221, thereby achieving precise control and positioning of the L-shaped guide tube 322 during the insertion process.

[0053] Reference Figure 4 and Figure 7As shown: the opening and closing structure 224 includes two first guide rods 2241, two first springs 2242 and two sealing plates 2243; the two first guide rods 2241 are arranged in parallel, and the two ends of the first guide rods 2241 are respectively facing the two first feed ports; the two first springs 2242 are respectively sleeved on the middle parts of the two first springs 2242; the two sealing plates 2243 correspond to the two first feed ports, and the two ends of the sealing plates 2243 are respectively slidably connected with the two first guide rods 2241.

[0054] In the initial state, the two first springs 2242 exert a continuous outward thrust on the two sealing plates 2243, that is, a force toward the outside of the storage barrel 221, so that the sealing plates 2243 are closely attached to the inner wall of the storage barrel 221, effectively closing the first feed port to prevent material leakage. When the L-shaped guide tube 322 is inserted into the storage barrel 221, the end of the L-shaped guide tube 322 comes into contact with the sealing plate 2243, and in the process of continuing to push, the sealing plate 2243 is pushed to move along the direction of the first guide rod 2241. In this process, the first spring 2242 is gradually compressed. , providing necessary buffer and resistance for the movement of the sealing plate 2243. As the L-shaped guide tube 322 goes deeper, the material is allowed to enter the storage barrel 221. When the storage barrel 221 is full of material, the L-shaped guide tube 322 is pulled out of the storage barrel 221. At this time, the two first springs 2242 release the stored elastic potential energy, pushing the two sealing plates 2243 to move in the opposite direction along the direction of the first guide rod 2241 until the sealing plates 2243 are tightly fitted to the inner wall of the storage barrel 221 again, thereby realizing the automatic opening and closing of the first feed port, and effectively preventing the material from overflowing outside the storage barrel 221.

[0055] The above embodiments only express one or several implementation modes of the present invention, and the description thereof is relatively specific and detailed, but it cannot be understood as limiting the scope of the present invention. It should be pointed out that, for those of ordinary skill in the art, several variations and improvements can be made without departing from the concept of the present invention, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the present invention shall be subject to the attached claims.

Claims

1. An intelligent water delivery pump house with integrated tap water pretreatment function, comprising a water house and a water inlet pipe, a adding mechanism, a filtering structure and a water outlet pipe arranged in the water house and connected in sequence, characterized in that: The adding mechanism comprises a flow distribution pipe (1), a material adding structure (2), a material supply structure (3) and a collecting pipe (4); The middle part of the diversion pipe (1) is connected to the water inlet pipe, and the diversion pipe (1) has at least two diversion ports; There are two feeding structures (2), the two feeding structures (2) are respectively connected to the two diversion ports of the diversion pipe (1), the feeding structure (2) comprises a mixing pipe (21), a material storage and discharge structure (22) and a lifting structure (24), the two ends of the mixing pipe (21) are respectively connected to the diversion pipe (1) and the collecting pipe (4), the material storage and discharge structure (22) is arranged at the upper end of the mixing pipe (21), and the lower end of the material storage and discharge structure (22) is located inside the mixing pipe (21), and the lifting structure (24) is arranged at the upper end of the material storage and discharge structure (22); The material feeding structure (3) is arranged between the two material feeding structures (2), and the material feeding structure (3) is connected to the material storage and discharge structure (22); The middle part of the collecting pipe (4) is connected to the filtering structure, and the collecting pipe (4) has at least two collecting ports, and the two collecting ports are respectively connected to the two mixing pipes (21).

2. The intelligent water pump house with integrated tap water pretreatment function according to claim 1, characterized in that: The material storage and discharge structure (22) comprises a material storage barrel (221), a mixing cover (222), a stirring component (223) and an opening and closing structure (224); The material storage barrel (221) is coaxially arranged with the mixing tube (21), the lower end of the material storage barrel (221) is inserted into the mixing tube (21), and the upper end of the material storage barrel (221) is provided with two first material feed openings symmetrically about its own axis; The mixing cover (222) is arranged at the lower end of the material storage barrel (221), and a second water inlet and a second water outlet are formed on the mixing cover (222); The stirring assembly (223) is arranged inside the storage barrel (221); The opening and closing structure (224) is arranged at the upper end inside the material storage barrel (221), and the opening and closing structure (224) corresponds to the two first material feed ports.

3. The intelligent water pump house with integrated tap water pretreatment function according to claim 2, characterized in that: The stirring assembly (223) comprises a first rotating shaft (2231), a first spiral blade (2232) and a non-powered fan blade (2233); The first rotating shaft (2231) is coaxially arranged with the material storage barrel (221), and one end of the first rotating shaft (2231) extends downwardly out of the mixing cover (222); The first spiral blade (2232) is arranged inside the material storage barrel (221), and the first spiral blade (2232) is connected to the first rotating shaft (2231); The unpowered fan blade (2233) is connected to one end of the first rotating shaft (2231) extending out of the mixing cover (222).

4. The intelligent water pump house with integrated tap water pretreatment function according to claim 1, characterized in that: The feeding structure (2) further comprises a sealing structure (23), wherein the sealing structure (23) comprises a sealing tube (231) and a sealing assembly (232); The sealing tube (231) is covered on the outside of the material storage barrel (221), the upper end of the sealing tube (231) is provided with a docking port corresponding to the two first material feed ports, the lower end of the sealing tube (231) extends into the interior of the mixing tube (21), and the sealing tube (231) is fixedly connected to the mixing tube (21); The sealing assembly (232) is arranged at the lower end of the sealing tube (231).

5. The intelligent water pump house with integrated tap water pretreatment function according to claim 1, characterized in that: The lifting structure (24) comprises a first lifting driver (241) and a reset assisting structure (242); The first lifting driver (241) is arranged at the upper end of the sealing tube (231), and the output end of the first lifting driver (241) is connected to the material storage barrel (221); The resetting assisting structure (242) is arranged at a middle position of the bottom of the mixing tube (21), and the resetting assisting structure (242) is butted against the lower end of the material storage and discharge structure (22).

6. The intelligent water pump house with integrated tap water pretreatment function according to claim 1, characterized in that: The feeding structure (3) comprises two bidirectional feeding components (31) and four plug-in components (32); Two bidirectional material feeding components (31) are arranged on both sides of a line connecting two material storage and discharge structures (22); The four plug-in assemblies (32) are grouped in pairs, and the two plug-in assemblies (32) in one group are respectively arranged at two ends of the bidirectional material feeding assembly (31), and the two plug-in assemblies (32) respectively correspond to the two material storage and discharge structures (22).

7. The intelligent water pump house with integrated tap water pretreatment function according to claim 6, characterized in that: The material supply structure (3) further comprises a material storage and supply assembly (33), wherein the material storage and supply assembly (33) comprises a material storage tank (331) and a main material supply assembly (332); The material storage tank (331) is arranged between the two material storage and discharge structures (22); The main material supply component (332) is arranged in the material storage tank (331), and the upper end of the main material supply component (332) is connected to the two bidirectional material supply components (31).

8. The intelligent water pump house with integrated tap water pretreatment function according to claim 7, characterized in that: The material storage and feeding assembly (33) comprises a downward pressing structure (333), and the downward pressing structure (333) is arranged at the upper end of the material storage tank (331).

9. The intelligent water pump house with integrated tap water pretreatment function according to claim 7, characterized in that: The feeding structure (3) further comprises two plug-in drive assemblies (34), the two plug-in drive assemblies (34) being respectively arranged on both sides of the material storage and feeding assembly (33), and the plug-in drive assemblies (34) being connected to the two bidirectional feeding assemblies (31).

10. The intelligent water pump house with integrated tap water pretreatment function according to claim 2, characterized in that: The opening and closing structure (224) comprises two first guide rods (2241), two first springs (2242) and two sealing plates (2243); The two first guide rods (2241) are arranged in parallel, and two ends of the first guide rods (2241) are respectively facing the two first feed ports; The two first springs (2242) are respectively sleeved on the middle parts of the two first springs (2242); The two sealing plates (2243) correspond to the two first feed ports respectively, and two ends of the sealing plate (2243) are slidably connected to the two first guide rods (2241) respectively.

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