Community water supply station
By adopting multi-stage reverse osmosis filters and automated water delivery systems in community water supply stations, the problems of water supply interruption and unstable water quality in remote areas and high-density residential areas caused by traditional water supply equipment have been solved. This has achieved water purification and stable and efficient water supply, making it suitable for the long-term operation of large-scale community water supply systems.
Patent Information
- Application Number
- CN202520146916.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-22
- Publication Date
- 2026-02-03
- Estimated Expiration
- 2035-01-22
AI Technical Summary
Traditional water supply equipment suffers from problems such as water supply interruption, water pollution, unstable water pressure, and insufficient emergency response in remote areas and high-density residential areas. Furthermore, reverse osmosis systems are complex to maintain and are not suitable for the long-term operation of large-scale community water supply systems.
Design a community water supply station that employs a multi-stage reverse osmosis filter and an automated water delivery system, combined with a support frame and control console, to achieve water purification, automated water supply, and intelligent management. The station includes a water storage device, a reverse osmosis filter, a water delivery system, and a support frame. The reverse osmosis filter is connected in series through pipelines for multi-stage filtration, and automated control is achieved using a liquid level sensor and a control console.
To ensure water purity, improve the stability and efficiency of water supply, reduce manual operation, enhance the intelligent management of the system, avoid water supply interruptions, and ensure timely water supply and water quality safety.
Smart Images

Figure CN223867332U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to water supply equipment technical field, concretely relates to a community water supply station. BACKGROUND
[0002] With the acceleration of urbanization and the improvement of residents' living standards, the community water supply system has increasingly high requirements for water quality and water supply efficiency. Traditional water supply methods such as water supply from waterworks are not suitable for some remote areas and high-density residential areas, and the construction and management of the water supply system face great pressure. In order to ensure the safety and stability of water quality and improve the efficiency of water supply, many communities have begun to explore more intelligent and efficient water supply solutions. Most of the current water supply equipment adopts a single water source supply method, and the purification of water quality depends on traditional water filtration devices, which have certain limitations in treatment effect and efficiency. If a natural disaster suddenly occurs in a certain area, traditional water supply may have problems such as water supply interruption, water pollution, unstable water supply pressure, and insufficient emergency response, which not only increases the operating cost but also leads to waste of water resources.
[0003] Reverse osmosis technology, as a mature water quality purification technology, has been widely used in various water treatment fields. By filtering impurities, microorganisms and harmful substances in water through a reverse osmosis filter, the water quality can be effectively guaranteed. However, traditional reverse osmosis systems usually require complex maintenance and manual operation, which is not suitable for long-term operation of large-scale community water supply systems.
[0004] Therefore, there is a need for an equipment that can provide emergency water supply and ensure water quality safety. UTILITY MODEL CONTENT
[0005] In order to overcome the technical defects of water supply interruption, water source pollution and water quality safety in the prior art, the utility model provides a community water supply station.
[0006] In order to solve the above problems, the utility model is implemented according to the following technical scheme:
[0007] The community water supply station comprises a water supply station main body and a water supply equipment arranged inside the water supply station main body, a plurality of water supply windows are arranged on the water supply station main body, and the water supply equipment comprises:
[0008] a control console;
[0009] a water flow conveying system comprising a plurality of pipelines and a water pump;
[0010] a water storage device comprising a water storage barrel and a water filtration barrel, the water filtration barrel is connected with the water pump through a pipeline, and the water storage barrel is connected with the water supply windows through a pipeline and the water pump;
[0011] a plurality of reverse osmosis filters, wherein the plurality of reverse osmosis filters are connected in series through pipes;
[0012] a support frame, wherein the control console is mounted on the base, and the support frame is provided with a connecting device connected with the reverse osmosis filters;
[0013] wherein the inlet of the frontmost reverse osmosis filter is connected with the water filtering barrel, the outlet of each reverse osmosis filter is connected with the inlet of the downstream reverse osmosis filter, and the outlet of the terminal reverse osmosis filter is connected with the water storage barrel.
[0014] Preferably, the connecting device comprises:
[0015] a fixing bracket, wherein the fixing bracket is arranged on the side frame and connected with the reverse osmosis filters;
[0016] a buckle assembly, wherein the buckle assembly is arranged on the base and buckled on the bottom of the reverse osmosis filter.
[0017] Preferably, the fixing bracket is in a semicircular structure, one end of the fixing bracket is fixed on the side frame, and the other end is connected with the reverse osmosis filter.
[0018] the buckle assembly comprises a buckle and a mounting portion, one end of the buckle is provided with a spring abutting against the edge of the inner side of the mounting portion, the bottom of the reverse osmosis filter is provided with a clamping groove, and the buckle is buckled on the clamping groove.
[0019] wherein the mounting portion is a circular sink opening, and the inner diameter of the mounting portion is greater than the outer diameter of the bottom of the reverse osmosis filter.
[0020] Preferably, the water supply window comprises:
[0021] a light-transmitting door, wherein the light-transmitting door is movably connected with the water supply window.
[0022] a water supply device, wherein the water supply device comprises a water outlet connected with the water storage barrel and a sensing seat, and the sensing seat is provided with a sink groove matched with the shape of the bottom of the barrel water.
[0023] Preferably, the water supply station body further comprises:
[0024] a safety door, wherein the safety door is arranged at the water supply window, the safety door is hinged to the water supply station body, and the safety door is provided with hydraulic rods on both sides, one end of the hydraulic rod is hinged to the water supply station body, the other end of the hydraulic rod is hinged to the safety door, and the safety door is opened and closed by rotating from top to bottom through the hydraulic rods.
[0025] Preferably, the support frame is made of metal material, and the surface of the support frame is provided with an anti-corrosion coating.
[0026] Preferably, the light-transmitting door is made of acrylic material.
[0027] Preferably, the water storage bucket is provided with a liquid level sensor for monitoring the water storage amount and transmitting signals to the console-controlled operation.
[0028] Preferably, the pipeline is made of PET material.
[0029] Preferably, the reverse osmosis filter has an automatic flushing function.
[0030] Compared with the prior art, the utility model has the beneficial effects that:
[0031] The utility model discloses a community water supply station, include: water supply station main part and be located in the water supply station main part inside water supply equipment, be equipped with a plurality of water supply windows on the water supply station main part, water supply equipment includes: console, water flow conveying system, water storage device, a plurality of reverse osmosis filter and support frame, water flow conveying system includes a plurality of pipelines and water pump, water storage device includes water storage bucket and filter water bucket, the filter water bucket is connected with water pump through the pipeline, and the water storage bucket is connected with water supply window through the pipeline and water pump, a plurality of reverse osmosis filter is connected in series through the pipeline, support frame includes base and side frame, the console is installed on the base, and the support frame is equipped with connecting device and is connected with reverse osmosis filter, wherein, the inlet of the reverse osmosis filter of front end is connected with filter water bucket, and the outlet of each reverse osmosis filter is connected with the inlet of downstream reverse osmosis filter, and the outlet of the reverse osmosis filter of end is connected with water storage bucket.
[0032] The utility model discloses a community water supply station, include: water supply station main part and be located in the water supply station main part inside water supply equipment, be equipped with a plurality of water supply windows on the water supply station main part, water supply equipment includes: console, water flow conveying system, water storage device, a plurality of reverse osmosis filter and support frame, water flow conveying system includes a plurality of pipelines and water pump, water storage device includes water storage bucket and filter water bucket, the filter water bucket is connected with water pump through the pipeline, and the water storage bucket is connected with water supply window through the pipeline and water pump, a plurality of reverse osmosis filter is connected in series through the pipeline, support frame includes base and side frame, the console is installed on the base, and the support frame is equipped with connecting device and is connected with reverse osmosis filter, wherein, the inlet of the reverse osmosis filter of front end is connected with filter water bucket, and the outlet of each reverse osmosis filter is connected with the inlet of downstream reverse osmosis filter, and the outlet of the reverse osmosis filter of end is connected with water storage bucket. BRIEF DESCRIPTION OF DRAWINGS
[0033] The utility model discloses a community water supply station's water supply equipment's perspective view, a community water supply station's rear view, a community water supply station's front view, a community water supply station's perspective view, a community water supply station's perspective view, a community water supply station's partial enlarged view, a community water supply station's buckle assembly's perspective view.
[0034] Figure 1 The utility model discloses a community water supply station's water supply equipment's perspective view, a community water supply station's rear view, a community water supply station's front view, a community water supply station's perspective view, a community water supply station's perspective view, a community water supply station's partial enlarged view, a community water supply station's buckle assembly's perspective view.
[0035] Figure 2 The utility model discloses a community water supply station's water supply equipment's perspective view, a community water supply station's rear view, a community water supply station's front view, a community water supply station's perspective view, a community water supply station's perspective view, a community water supply station's partial enlarged view, a community water supply station's buckle assembly's perspective view.
[0036] Figure 3 The utility model discloses a community water supply station's water supply equipment's perspective view, a community water supply station's rear view, a community water supply station's front view, a community water supply station's perspective view, a community water supply station's perspective view, a community water supply station's partial enlarged view, a community water supply station's buckle assembly's perspective view.
[0037] Figure 4 The utility model discloses a community water supply station's water supply equipment's perspective view, a community water supply station's rear view, a community water supply station's front view, a community water supply station's perspective view, a community water supply station's perspective view, a community water supply station's partial enlarged view, a community water supply station's buckle assembly's perspective view.
[0038] Figure 5 The utility model discloses a community water supply station's water supply equipment's perspective view, a community water supply station's rear view, a community water supply station's front view, a community water supply station's perspective view, a community water supply station's perspective view, a community water supply station's partial enlarged view, a community water supply station's buckle assembly's perspective view.
[0039] Figure 6 The utility model discloses a community water supply station's water supply equipment's perspective view, a community water supply station's rear view, a community water supply station's front view, a community water supply station's perspective view, a community water supply station's perspective view, a community water supply station's partial enlarged view, a community water supply station's buckle assembly's perspective view.
[0040] Figure 7 The utility model discloses a community water supply station's water supply equipment's perspective view, a community water supply station's rear view, a community water supply station's front view, a community water supply station's perspective view, a community water supply station's perspective view, a community water supply station's partial enlarged view, a community water supply station's buckle assembly's perspective view.
[0041] In the figure: 100-water supply station main body, 110-water storage device, 120-RO filter, 130-support frame, 140-connection device, 150-safety door, 101-water supply window, 102-control console, 103-water flow delivery system, 104-pipeline, 105-water pump, 111-water storage bucket, 112-water filter bucket, 122-inlet, 123-outlet, 131-base, 132-side frame, 141-fixed support, 142-buckle assembly, 143-buckle, 144-mounting part, 151-hydraulic rod, 1010-light transmission door, 1011-water supply device, 1012-water outlet, 1013-sensing seat, 1014-sink. DETAILED DESCRIPTION
[0042] The preferred embodiments of the utility model will be described below with reference to the drawings, and it should be understood that the preferred embodiments described here are only used for explaining and illustrating the utility model, and are not used for limiting the utility model.
[0043] As Figures 1-7 The utility model discloses a community water supply station's water supply equipment's perspective view, a community water supply station's rear view, a community water supply station's front view, a community water supply station's perspective view, a community water supply station's perspective view, a community water supply station's partial enlarged view, a community water supply station's buckle assembly's perspective view.
[0044] Control console 102.
[0045] Water transport system 103; the water transport system includes several pipes 104, water pumps 105 and 106;
[0046] Water storage device 110; Water storage device 110 includes a water storage tank 111 and a water filter tank 112. The water filter tank 112 is connected to 106 via pipe 104. The water storage tank 111 is connected to the water supply window 101 via pipe 104 and water pump 105.
[0047] Several reverse osmosis filters 120 are connected in series via pipes.
[0048] Support frame 130; support frame 130 includes base 131 and side frame 132, control console 102 is mounted on base 131, and support frame 130 is provided with connecting device 140 connected to reverse osmosis filter 120.
[0049] The inlet 122 of the frontmost reverse osmosis filter 120 is connected to the water filter tank 112, the outlet 123 of each reverse osmosis filter 120 is connected to the inlet 122 of the downstream reverse osmosis filter 120, and the outlet 123 of the end reverse osmosis filter 120 is connected to the water storage tank 111.
[0050] In this embodiment, the main body 100 of the water supply station is a rectangular structure, with an overall steel frame and a surface covered with anti-corrosion material. Water supply equipment is installed inside the main body 100, and several water supply windows 101 are provided for residents to collect filtered drinking water.
[0051] The control console 102 is installed inside the main body 100 of the water supply station. The control console 102 is equipped with an operation panel, which includes a power switch, a pump switch, flow adjustment buttons for each water pump, a monitoring display for the filtration system, and a system alarm device. The operator can use the control console 102 to monitor and manage the water delivery system 103, the reverse osmosis filter 120, and other water treatment equipment in real time.
[0052] The water delivery system 103 includes several pipes 104, pumps 105 and 106. The main function of the water delivery system 103 is to deliver and distribute water, ensuring the flow of water from the storage tank 111 to the water supply window 101. The pipes 104 are made of food-grade plastic, specifically PET, which has good corrosion resistance and pressure resistance. The pumps 105 are used to pump water from the storage tank 111 to the water supply window 101, and 106 drives the pumps 105.
[0053] The water storage device 110 includes two types of tanks: a storage tank 111 and a filter tank 112. The storage tank 111 is used to store filtered water, and the filter tank 112 is used to store raw water. The filter tank 112 is connected to 106 via pipes 104 and 106, through which water pumped by the water pump is sent to the reverse osmosis filter 120; the storage tank 111 is connected to the water pump 105 via pipe 104, through which the filtered water is delivered to the water supply window 101.
[0054] Specifically, the reverse osmosis filter 120 consists of several reverse osmosis filters 120 connected in series via pipes. The reverse osmosis filters 120 use reverse osmosis membranes, which can effectively remove heavy metals, bacteria, and other harmful substances from the water, ensuring the quality of the supplied water. The inlet 122 of each reverse osmosis filter 120 is connected to the filter tank 112, and the outlet 123 is connected to the inlet 122 of the downstream reverse osmosis filter 120. The outlet 123 of the final reverse osmosis filter 120 is connected to the storage tank 111, ensuring that the filtered water is stored in the storage tank 111 for use in water supply.
[0055] Reverse osmosis membranes are also called RO membranes, more specifically:
[0056] A reverse osmosis membrane is a semi-permeable membrane that uses the principle of reverse osmosis to treat water. Reverse osmosis is a physical filtration process in which water is passed through a very fine membrane, allowing only water molecules to pass through, while most ions, particles, organic matter, etc. dissolved in the water are blocked.
[0057] Working principle of reverse osmosis membrane:
[0058] 1. Osmosis and Reverse Osmosis:
[0059] In nature, water molecules always flow from solutions of lower concentration to solutions of higher concentration; this is the basic principle of osmosis.
[0060] Reverse osmosis, on the other hand, involves applying external force (such as a water pump) to make water flow in the opposite direction from a high-concentration solution, passing through a semi-permeable membrane to the low-concentration side, ultimately resulting in purified water.
[0061] 2. Structure of reverse osmosis membrane:
[0062] Membrane material: Reverse osmosis membranes are typically made of a thin layer of polymer material (such as polyamide or polyester) that can prevent most dissolved substances (such as salt, heavy metals, bacteria, etc.) from passing through, but allow water molecules to pass through freely.
[0063] Membrane pores: The pores of reverse osmosis membranes are extremely small, typically on the scale of 0.0001 micrometers, enabling them to filter out most impurities dissolved in water more effectively. Bacteria and most organic molecules are generally much larger, and therefore they are blocked on the other side of the membrane.
[0064] 3. Filtration effect:
[0065] Reverse osmosis membranes can remove large amounts of dissolved solids (such as salts), suspended solids, microorganisms (including bacteria and viruses), and other contaminants from water. Reverse osmosis can remove more than 90% of dissolved salts, and is therefore commonly used in seawater desalination and the production of high-purity water. Reverse osmosis membranes are widely used in drinking water purification systems in homes, industries, hospitals, and other locations, effectively removing harmful substances from water and ensuring that the water quality meets drinking water standards.
[0066] The support frame 130 is the main structure supporting the water supply equipment. The support frame 130 includes a base 131 and side frames 132. The base 131 is welded from steel plates to ensure structural stability. The side frames 132 are welded from several square steel bars and are bolted to the base 131. They have a certain height to ensure sufficient operating space for the control console 102. A connecting device 140 is provided on the support frame 130. This connecting device 140 is used to securely connect the reverse osmosis filter 120 to the support frame 130, ensuring the stability of the equipment during operation.
[0067] In a preferred embodiment of this invention, the reverse osmosis filters are connected in series. The inlet 122 of each reverse osmosis filter 120 is connected to the filter tank 112. Water passing through the reverse osmosis membrane enters the inlet 122 of the downstream reverse osmosis filter 120 from the outlet 123. After multi-stage filtration, the outlet 123 of the final reverse osmosis filter 120 sends the purified water into the storage tank 111. After ensuring the water quality meets safety standards, water is supplied to the water supply window 101.
[0068] Implementation, for example Figure 1 As shown, the connecting device 140 includes:
[0069] Fixed bracket 141; Fixed bracket 141 is provided on side frame 132 and fixed bracket 141 is connected to reverse osmosis filter 120;
[0070] Snap-fit assembly 142; Snap-fit assembly 142 is disposed on base 131 and snaps into the bottom of reverse osmosis filter 120.
[0071] In this embodiment, the connecting device 140 is mainly used to fix and support the reverse osmosis filter 120, and to ensure that the filter remains stable and secure during operation. The connecting device 140 includes a fixing bracket 141 and a snap-fit assembly 142, and its specific structure and working principle are as follows:
[0072] The fixed bracket 141 is mounted on the side frame 132 of the main body 100 of the water supply station. It is made of stainless steel and has good strength and stability. One end of the fixed bracket 141 is connected to the side frame 132 by bolts, and it will not loosen or shift during use.
[0073] The other end of the fixed bracket 141 is connected to the reverse osmosis filter 120 to ensure that the filter 120 remains stable during water flow transmission and to prevent it from shifting due to water flow pressure or vibration.
[0074] The design of the mounting bracket 141 allows the reverse osmosis filter 120 to be easily installed and removed as needed, facilitating subsequent maintenance and replacement.
[0075] The snap-fit assembly 142 is mounted on the base 131 of the main body 100 of the water supply station. The function of the snap-fit assembly 142 is to secure the bottom of the reverse osmosis filter 120 and prevent the filter 120 from shifting or tilting due to gravity or external force during operation.
[0076] Optionally, the snap-fit assembly 142 is fixed to the base 131 by bolts or welding.
[0077] In this embodiment, the connecting device supports the reverse osmosis filter 120. The fixed bracket 141 provides vertical stability, while the snap-fit assembly 142 provides horizontal stability. This prevents the filter 120 from shifting, vibrating, or tilting during operation.
[0078] In this embodiment, the connection device makes installation and maintenance more efficient, allowing operators to quickly install, disassemble, and maintain the equipment, reducing operation time and costs.
[0079] Implementation, for example Figure 7 As shown, more specifically, the fixing bracket 141 has a semi-arc structure, one end of the fixing bracket 141 is fixed to the side frame 132, and the other end is connected to the reverse osmosis filter 120;
[0080] The semi-circular design of the mounting bracket 141 better conforms to the curved surface of the reverse osmosis filter 120, providing better support.
[0081] The snap-fit assembly 142 includes a snap-fit 143 and a mounting part 144. One end of the snap-fit 143 is provided with a spring that abuts against the inner edge of the mounting part 144. The bottom of the reverse osmosis filter 120 is provided with a slot 124, and the snap-fit 143 is snapped into the slot 124.
[0082] The mounting part 144 is a circular settling tank, and the inner diameter of the mounting part 144 is larger than the outer diameter of the bottom of the reverse osmosis filter 120.
[0083] The snap-fit assembly 142 includes two snap-fits 143, which are located on both sides of the bottom of the reverse osmosis filter 120. The inside of the snap-fit 143 is provided with a spring. When the reverse osmosis filter 120 is installed in place, the snap-fit 141 will automatically clamp the slot 124 at the bottom of the filter 120 and be fixed by the elastic force of the spring.
[0084] Implementation, for example Figure 4 , Figure 5 and Figure 6 As shown, preferably, the water supply window 101 includes:
[0085] Light-transmitting door 1010; Light-transmitting door 1010 is movably connected to the water supply window 101;
[0086] Water supply device 1011; Water supply device 1011 includes a water outlet 1012 connected to a water storage tank 111 and a sensor base 1013, and the sensor base 1013 is provided with a settling trough 1014 adapted to the shape of the bottom of the bottled water.
[0087] When the bucket is placed in the water supply window 101, the pipe 104 automatically supplies water. When the water level in the bucket reaches the preset value, the water supply is stopped.
[0088] In this embodiment, the light-transmitting door 1010 is made of transparent acrylic material, which has high light transmittance, allowing the operator to observe the placement of the water bucket through the panel. The light-transmitting door 1010 is movably connected to the frame of the water supply window 101, and optionally, the opening and closing operation is achieved through a hinge or sliding rail mechanism.
[0089] In this embodiment, the light-transmitting door 1010 can optionally be opened manually by touch or lever, or it can be designed as an automatic sensor door, opening and closing automatically via the control panel 102. When a resident places a water bucket, the light-transmitting door 1010 automatically opens to facilitate the placement of the bucket.
[0090] The water supply device 1011 is used to transport water from the water storage tank 111 to the water supply window 101 through the pipe 104. The water supply device 1011 includes a water outlet 1012, a sensor base 1013 and a pipe 104 connected to the water storage tank 111.
[0091] The water outlet 1012 is connected to the water flow pipe 104 of the water storage tank 111. When the bottled water is placed in the water supply window 101, the water outlet 1012 automatically supplies water through the pipe 104.
[0092] The sensor base 1013 has a recess 1014 adapted to the shape of the bottom of a bottled water container to fix the position of the water container. The shape of the recess 1014 matches the bottom contour of a standard water container, ensuring that the water container is stable and does not wobble after being placed. The sensor base 1013 is equipped with a gravity sensor. When the weight reaches a preset value, the sensor will send a signal to stop the water supply.
[0093] Working principle: When a resident places a water bucket into the water supply window 101, the light-transmitting door 1010 can open automatically or manually. The sensor base 1013 inside the water supply window secures the water bucket via a settling groove 1014. A pipe 104 connects to the bottom of the water bucket, and a water pump draws water from the storage tank through the outlet 1012 into the bucket. During the filling process, a gravity sensor on the sensor base 1013 monitors the weight of the bucket in real time. When the water level in the bucket reaches a preset upper limit, the sensor automatically stops the water supply to prevent overflow or overfilling.
[0094] Implementation, for example Figure 4 As shown, the main body 100 of the water supply station also includes:
[0095] Safety door 150 is located at water supply window 101 and is hinged to the main body 100 of the water supply station. Hydraulic rods 151 are provided on both sides of safety door 150. One end of hydraulic rod 151 is hinged to the main body 100 of the water supply station, and the other end of hydraulic rod 151 is hinged to safety door 150. The safety door 150 is opened and closed by rotating from top to bottom through hydraulic rod 151.
[0096] The safety door, size 150, can cover the entire water supply window; it can be closed when the water supply station is not in use.
[0097] The support frame 130 is made of stainless steel and has an anti-corrosion coating on its surface.
[0098] Stainless steel has high mechanical strength and durability, enabling it to bear the weight of the entire water supply equipment. To improve the durability of the support frame, the surface of the support frame 130 is coated with an anti-corrosion coating, which can be an epoxy resin coating or other anti-corrosion materials. In humid environments, the support frame 130 can maintain a long service life.
[0099] Implementation, for example Figure 5 As shown, preferably, the light-transmitting door 1010 is made of acrylic material.
[0100] In a preferred embodiment of this utility model, a liquid level sensor is provided inside the water storage tank 111 to monitor the water storage volume and transmit the signal to the control console for operation.
[0101] This embodiment provides a water storage tank 111, which is equipped with a liquid level sensor. The liquid level sensor can monitor the water level in the storage tank in real time and transmit the signal to the control console to control the operation of the water pump. When the water level reaches the set upper or lower limit, the liquid level sensor will send a signal to the control console to control the start and stop of the pump, thereby realizing automated water management.
[0102] Preferably, pipe 104 is made of PET material.
[0103] PET (polyethylene terephthalate) is a common plastic material, belonging to the polyester plastics family. It has the following main characteristics:
[0104] 1. High strength and durability: PET material has excellent mechanical strength and durability, and can withstand high pressure and tension.
[0105] 2. Chemical stability: PET has good resistance to many chemicals and can resist the erosion of acids, alkalis and solvents, thus maintaining a long service life in a variety of environments.
[0106] 3. Heat resistance: PET has good heat resistance and can remain stable within a certain temperature range. Its melting point is usually about 250℃.
[0107] 4. Environmental friendliness: PET is a recyclable material. Many PET products (such as bottles) can be recycled and reused, reducing the impact of plastic waste.
[0108] Preferably, the reverse osmosis filter 120 has an automatic flushing function.
[0109] The reverse osmosis filter 120 is equipped with an automatic flushing system. When the reverse osmosis filter 120 reaches the preset usage period or the water quality drops to a certain standard, the backwashing function is automatically activated via the control panel 102. The reverse water flow flushes away dirt and impurities in the filter, keeping the reverse osmosis filter 120 running. The automatic flushing function not only extends the filter's service life and reduces the frequency of manual cleaning, but also maintains stable water quality.
[0110] In summary, this utility model provides a community water supply station. This station utilizes reverse osmosis membrane filtration technology to remove harmful substances from the water, ensuring that the water quality meets drinking standards. Through the water supply equipment, automated water volume management and supply control are achieved. The support frame and various connecting devices provide structural support and stability. The pipes, made of PET material, have excellent corrosion resistance and environmental performance, extending the service life of the equipment and improving overall safety and stability. This innovative design of the water supply station provides community residents with a convenient and reliable drinking water supply.
[0111] The working principle of the community water supply station described in this utility model is as follows: When residents need to collect water, the light-transmitting door 1010 opens automatically or manually, placing the water bucket on the sensor base 1013 of the water supply window 101. The groove 1014 on the sensor base 1013 is adapted to the shape of the bottom of the water bucket, fixing the bucket in place. Through the control console 102, the water flow delivery system 103 and 106 are started, driving the water pump 105 to deliver the filtered water in the storage tank 111 to the outlet 1012 of the water supply window 101, automatically supplying water. The water flow is delivered to the water bucket through the pipe 104. During the water supply process, the gravity sensor on the sensor base 1013 monitors the weight of the water bucket in real time. When the water level in the bucket reaches a preset value, the sensor sends a signal to the control console to stop the water supply, preventing overflow or overfilling.
[0112] Inside the water supply station, water first flows from filter tank 112 through pipe 104 into reverse osmosis filter 120. After multi-stage filtration by reverse osmosis filter 120, impurities, heavy metals, microorganisms, and other harmful substances are removed from the water, ultimately yielding purified water. The reverse osmosis filters 120 are arranged in series to ensure effective water filtration. The filtered water then flows through pipes into storage tank 111 for later use. When the water level in storage tank 111 reaches a set value, the level sensor sends a signal to the control panel, which then starts and stops the controller.
[0113] The above description is merely a preferred embodiment of the present utility model and is not intended to limit the present utility model in any way. Therefore, any modifications, equivalent changes, and alterations made to the above embodiments based on the technical essence of the present utility model without departing from the technical solution of the present utility model shall still fall within the scope of the technical solution of the present utility model.
Claims
1. A community water supply station, characterized in that, Includes: a main body (100) of a water supply station and water supply equipment located inside the main body (100), wherein the main body (100) of the water supply station is provided with a plurality of water supply windows (101), and the water supply equipment includes: Console (102); A water transport system (103) comprising a plurality of pipes (104) and a water pump (105); A water storage device (110) includes a water storage tank (111) and a water filter tank (112). The water filter tank (112) is connected to a water pump (105) via a pipe (104). The water storage tank (111) is connected to a water supply window (101) via a pipe (104) and the water pump (105). A plurality of reverse osmosis filters (120) are connected in series via pipes; The support frame (130) includes a base (131) and a side frame (132). The control console (102) is mounted on the base (131). The support frame (130) is provided with a connecting device (140) to connect with the reverse osmosis filter (120). The inlet (122) of the foremost reverse osmosis filter (120) is connected to the water filter tank (112), the outlet (123) of each reverse osmosis filter (120) is connected to the inlet (122) of the downstream reverse osmosis filter (120), and the outlet (123) of the end reverse osmosis filter (120) is connected to the water storage tank (111).
2. The community water supply station according to claim 1, characterized in that, The connecting device (140) includes: Fixed bracket (141); the fixed bracket (141) is disposed on the side frame (132), and the fixed bracket (141) is connected to the reverse osmosis filter (120); Snap-fit assembly (142); The snap-fit assembly (142) is disposed on the base (131) and snaps onto the bottom of the reverse osmosis filter (120).
3. The community water supply station according to claim 2, characterized in that, The fixed bracket (141) has a semi-arc structure. One end of the fixed bracket (141) is fixed to the side frame (132), and the other end is connected to the reverse osmosis filter (120). The buckle assembly (142) includes a buckle (143) and a mounting part (144). One end of the buckle (143) is provided with a spring that abuts against the inner edge of the mounting part (144). The bottom of the reverse osmosis filter (120) is provided with a slot (124), and the buckle (143) is engaged with the slot (124). The mounting part (144) is a circular recessed groove, and the inner diameter of the mounting part (144) is larger than the outer diameter of the bottom of the reverse osmosis filter (120).
4. The community water supply station according to claim 1, characterized in that, The water supply window (101) includes: A light-transmitting door (1010); the light-transmitting door (1010) is movably connected to the water supply window (101); Water supply device (1011); the water supply device (1011) includes an outlet (1012) connected to the water storage tank (111) and a sensor base (1013), the sensor base (1013) being provided with a settling trough (1014) adapted to the shape of the bottom of the bottled water.
5. The community water supply station according to claim 1, characterized in that, The main body of the water supply station (100) also includes: A safety door (150) is provided at the water supply window (101). The safety door (150) is hinged to the main body (100) of the water supply station. Hydraulic rods (151) are provided on both sides of the safety door (150). One end of the hydraulic rod (151) is hinged to the main body (100) of the water supply station, and the other end of the hydraulic rod (151) is hinged to the safety door (150). The safety door (150) can be rotated and opened from top to bottom through the hydraulic rods (151).
6. The community water supply station according to claim 1, characterized in that, The support frame (130) is made of metal and has an anti-corrosion coating on its surface.
7. The community water supply station according to claim 4, characterized in that, The light-transmitting door (1010) is made of acrylic material.
8. The community water supply station according to claim 1, characterized in that, The water storage tank (111) is equipped with a liquid level sensor to monitor the water storage volume and transmit the signal to the control console for operation.
9. The community water supply station according to claim 1, characterized in that, The pipe (104) is made of PET material.
10. The community water supply station according to claim 1, characterized in that, The reverse osmosis filter (120) has an automatic flushing function.