A fully enclosed base intelligent massage swimming pool

Abstract

The present invention relates to the technical field of swimming pool equipment, and specifically to an intelligent massage swimming pool with a fully enclosed base, which includes a swimming pool body, a circulation pump, and a fully enclosed base arranged circumferentially around the swimming pool body. It also includes a water filtration mechanism. By arranging a rotating disk located below the filter screen and a collection chamber on its top, automatic collection of impurities on the water-facing surface of the filter screen is achieved. The periodic rotation design of the rotating disk enables the top collection chamber to continuously sweep across the bottom of the filter screen, dynamically capture impurities deposited on the water-facing surface of the filter screen and introduce them into the collection chamber. Compared with the traditional water filtration device that must be shut down to disassemble and clean the filter screen, the cleaning process is completed under a continuous flow and uninterrupted operation, effectively avoiding problems such as operation interruption and frequent maintenance.

Description

Technical Field

[0001] The present invention relates to the technical field of swimming pool equipment, and in particular to an intelligent massage swimming pool with a fully enclosed base. Background Art

[0002] Traditional swimming pools have exposed several technical pain points over long-term use. First, conventional water circulation and filtration systems have blind spots, resulting in uneven water cleanliness, especially in areas with slow water flow, which can easily breed microorganisms. Second, existing swimming pools are limited in functionality and lack intelligent interactive modules, making them unable to meet the combined needs of modern users for health, therapy, and leisure. Some massage pools currently on the market use external hydrotherapy devices, which not only compromise the structural integrity of the pool but also pose safety risks due to protruding mechanical components. Furthermore, traditional base designs fail to consider the synergy between hydraulic distribution and ergonomics, significantly reducing massage effectiveness. Furthermore, fixed filtration systems often face difficulties in cleaning due to narrow maintenance access, and backwashing can easily cause secondary contamination. Existing pool water filtration systems often require shutdown and filter removal for cleaning, which not only increases the maintenance burden for users but also requires shutdown for each cleaning, interrupting the pool's water circulation. This not only affects pool efficiency but can also cause fluctuations in water quality, impacting pool cleanliness and comfort. Frequent shutdowns and disassembly are particularly tedious in frequently used pools and can easily damage filter components. Summary of the Invention

[0003] In response to the problems existing in the existing technology, a fully enclosed base intelligent massage swimming pool is provided. By setting a rotating disk located below the filter and a collection chamber on its top, the automatic collection of impurities on the water surface of the filter is realized. The periodic rotation design of the rotating disk enables the top collection chamber to continuously sweep the bottom of the filter, dynamically capture impurities deposited on the water surface of the filter and introduce them into the collection chamber. Compared with the traditional water filtration device that must be shut down to disassemble and clean the filter, the cleaning process is completed under the state of continuous flow and uninterrupted work, effectively avoiding problems such as operation interruption and frequent maintenance.

[0004] To solve the problems of the prior art, the present invention provides a fully enclosed base intelligent massage swimming pool, comprising a swimming pool body, a circulation pump, and a fully enclosed base arranged circumferentially around the swimming pool body, and also comprising a water filtration mechanism, wherein the water filtration mechanism comprises: a filter tank disposed at the bottom of the swimming pool body, the bottom of the filter tank being provided with a water inlet communicating with the swimming pool body, and the top of the filter tank being provided with a water outlet communicating with the circulation pump; a filter screen disposed in the filter tank; a rotating disk rotatably disposed below the filter screen, the top of the rotating disk being provided with a water passage cavity and a collection cavity, the water passage cavity being communicated with the water inlet; a collection channel disposed on the inner wall of the filter tank, one end of the collection channel being communicated with the collection cavity, the other end of the collection channel extending to the outside of the filter tank and provided with an impurity discharge port; a drive shaft coaxially disposed in the filter tank, the top end of the drive shaft being rotatably connected to the top end of the filter tank, the circumferential surface of the lower portion of the drive shaft being provided with arcuate sheets distributed along the circumference thereof, the arcuate sheets extending into the water inlet, and the drive shaft being transmission-connected to the rotating disk.

[0005] Preferably, the top of the filter tank is also provided with a driven gear distributed along the circumference of the drive shaft, the top of the drive shaft is provided with a driving gear, and the driving gear is engaged with the driven gear; the top of the rotating disk is provided with a drive tube coaxial with the drive shaft, and the top of the drive tube is provided with an inner gear ring that forms an internal meshing with the driven gear.

[0006] Preferably, the inner wall of the water inlet is provided with a narrow opening communicating with the collecting channel, and a filter head is provided at the narrow opening, and the height of the filter head is higher than the impurity discharge port.

[0007] Preferably, the water filtering mechanism further comprises an impurity squeezing mechanism, which is arranged at the impurity discharge outlet and is used for squeezing out the water from the impurities discharged from the collecting chamber and then discharging the impurities through the impurity discharge outlet.

[0008] Preferably, the impurity squeezing mechanism includes an annular cone head coaxially abutting against the impurity discharge outlet, and an elastic element is provided at the bottom end of the annular cone head; the circumference of the rotating disk extends downward to form a rotating cone, and the collection channel is formed between the outer surface of the rotating cone and the inner wall of the filter tank, and the bottom end of the rotating cone is provided with a spiral blade with a hole coaxial therewith, and the spiral blade with a hole extends to the top of the impurity discharge outlet.

[0009] Preferably, the inner edge of the perforated spiral blade is loosely fitted with the outer wall of the filter head.

[0010] Preferably, a sealed cavity is provided at the bottom end of the impurity discharge port, the bottom end of the annular cone head extends into the sealed cavity, and the elastic element is located between the annular cone head and the bottom end of the sealed cavity.

[0011] Preferably, a collecting ring coaxial with the annular cone head is provided in the sealed cavity, the top of the collecting ring is an inclined collecting surface, and the sealed cavity is further provided with an impurity rectification and discharge outlet connected to the bottom of the collecting surface.

[0012] Compared with the prior art, the present invention has the following advantages:

[0013] This application realizes the effective collection of impurities on the water-facing surface of the filter by providing a rotating disk located below the filter and a collection chamber on its top; water enters the filter tank from the water inlet under the action of a circulating pump, and is diverted through the water flow chamber on the top of the rotating disk into the filter for preliminary filtration; when the pool water flows through the filter, impurities such as hair and fine particles in the water will be deposited on the water-facing surface of the filter. As the water flow continues to push, the impurities gradually settle downward and gather in the top area of ​​the rotating disk; the periodic rotation of the rotating disk enables the collection chamber on its top to continuously sweep the bottom of the filter, thereby guiding the attached impurities into the collection chamber. These impurities are then smoothly discharged from the tank through the collection channel provided on the inner wall of the filter tank, realizing an automated, non-interference cleaning process. This structure significantly reduces the risk of clogging of the filter due to long-term retention of impurities, extends the service life of the filter component, and reduces the frequency of manual cleaning; the system stability and water quality are maintained during the uninterrupted filtration process, ensuring the safety and comfort of swimming pool users. In addition, the collection channel is equipped with a dedicated sewage outlet, which can be automatically opened during system operation or triggered by intelligent control to quickly discharge deposited impurities outside the system, effectively avoiding bacterial growth and odor accumulation, and improving the hygiene level and ease of use of the entire swimming pool. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a three-dimensional diagram of an intelligent massage swimming pool with a fully enclosed base according to the present invention.

[0015] Figure 2 It is a three-dimensional cross-sectional view of an intelligent massage swimming pool with a fully enclosed base according to the present invention.

[0016] Figure 3 It is a cross-sectional view of a water filtration mechanism in a fully enclosed base intelligent massage swimming pool of the present invention.

[0017] Figure 4 yes Figure 3 A partial enlarged view of point A.

[0018] Figure 5 yes Figure 3 A partial enlarged view of point B.

[0019] Figure 6 It is a three-dimensional exploded view of a water filtration mechanism in a fully enclosed base intelligent massage swimming pool of the present invention.

[0020] Figure 7yes Figure 6 A partial enlarged view of point C.

[0021] Figure 8 It is a three-dimensional schematic diagram of a rotating disk in a fully enclosed base intelligent massage swimming pool of the present invention.

[0022] Figure 9 It is a three-dimensional schematic diagram of a curved piece in a fully enclosed base intelligent massage swimming pool of the present invention.

[0023] Figure 10 yes Figure 9 A partial enlarged view of point D.

[0024] The numbers in the figure are: 1. Swimming pool body; 3. Fully enclosed base; 41. Filter tank; 411. Water inlet; 412. Water outlet; 413. Narrow mouth; 414. Filter head; 42. Filter screen; 43. Rotating disk; 431. Water passage chamber; 432. Collecting chamber; 433. Rotating cone; 44. Collecting channel; 45. Impurity discharge outlet; 46. Drive shaft; 461. Arc-shaped sheet; 471. Driven gear; 472. Driving gear; 473. Drive pipe; 4731. Internal gear ring; 481. Annular cone head; 482. Elastic element; 483. Spiral blade with holes; 49. Sealing chamber; 491. Collecting ring; 4911. Collecting surface; 492. Impurity rectification and discharge outlet. DETAILED DESCRIPTION

[0025] In order to further understand the features, technical means, specific objectives and functions achieved by the present invention, the present invention is further described in detail below with reference to the accompanying drawings and specific embodiments.

[0026] like Figure 1 、 Figure 2 、 Figure 3 and Figure 8 As shown, a fully enclosed base intelligent massage swimming pool includes a swimming pool body 1, a circulation pump, and a fully enclosed base 3 circumferentially arranged around the swimming pool body 1. The water filtration mechanism includes a filter tank 41 disposed at the bottom of the swimming pool body 1, having a water inlet 411 at its bottom connected to the swimming pool body 1 and a water outlet 412 at its top connected to the circulation pump; a filter screen 42 disposed within the filter tank 41; a rotating disk 43 rotatably disposed below the filter screen 42, having a water passage chamber 431 and a collection chamber 432 at its top, with the water passage chamber 431 connected to the water inlet 411; and a collection channel 44 disposed on the inner wall of the filter tank 41, having a top end connected to the collection chamber 432 and a bottom end extending to the outside of the filter tank 41 and having an impurity discharge port 45.

[0027] The pool body 1 is the primary load-bearing structure and can be designed in various shapes depending on the usage scenario. A circulating pump connects the outer surface to the filtration system, ensuring continuous water circulation. The fully enclosed base 3 not only provides physical support but also organically integrates water, electrical, massage, and control components, effectively enhancing overall aesthetics and ease of use.

[0028] The water filtration mechanism includes components such as a filter tank 41, a filter screen 42, a rotating disk 43, and a collection channel 44. The filter tank 41 is located at the bottom of the swimming pool body 1. The bottom is provided with a water inlet 411 that is connected to the swimming pool, and the top is connected to a circulation pump to form a water outlet 412. The filter screen 42 is installed inside the filter tank 41 to intercept suspended impurities in the pool water. The rotating disk 43 is located below the filter screen 42 and can rotate slowly or at a fixed time. The top of the rotating disk 43 is provided with a water flow chamber 431 and a collection chamber 432. The water flow chamber 431 is connected to the water inlet 411 for distributing water flow; the collection chamber 432 temporarily stores deposited impurities. The inner wall of the filter tank 41 is provided with a collection channel 44. The upper end is connected to the collection chamber 432, and the lower end extends to the outside of the filter tank 41 and is provided with an impurity discharge port 45, which facilitates the rapid discharge of dirt through external operation, achieving low maintenance and high efficiency operation.

[0029] To enhance the user experience, the system further integrates massage and intelligent modules. Multiple hydromassage nozzles are embedded in the pool wall or base structure. The jet intensity and frequency can be freely adjusted via an intelligent control system, allowing for various settings such as pulsed, continuous, and staggered loops to meet diverse needs for muscle relaxation or physical and mental relaxation. The control system supports remote operation via a touch panel or mobile app, enabling real-time monitoring of key parameters such as water temperature, water quality (pH, residual chlorine concentration), and filtration status. It also supports intelligent functions such as scheduled scheduling, automatic sewage discharge, and fault warnings. The embedded water level and turbidity sensors enable the entire system to automatically perform maintenance and adjustments without human intervention, such as automatically stopping the pump when the water level is low or automatically reactivating the filtration process when water quality deteriorates. However, these intelligent control features are not the focus of this invention; the mechanical structure is the primary focus. Details not specifically addressed by this invention will not be elaborated upon here.

[0030] The water filtering mechanism further includes a motor, which is disposed on the top of the filter tank 41 . The output shaft of the motor passes through the filter screen 42 and is connected to the rotating disk 43 .

[0031] As the first rotation mode of rotating disk 43, the motor is rigidly connected to rotating disk 43 via an output shaft. During system operation, rotating disk 43 rotates at a stable and controllable speed. Its top structure is equipped with a collection chamber 432 for scraping or absorbing impurities. This action periodically sweeps across the water-facing surface of filter screen 42, effectively stripping away deposited impurities and guiding them into the designated drainage path, thus completing the cleaning process.

[0032] Compared to traditional manual cleaning methods, this automated design allows for continuous cleaning without interrupting water flow, significantly reducing the frequency and intensity of system maintenance. The motor, acting as the active drive source, precisely controls the movement of the rotating disk 43. Whether operating in continuous or intermittent mode, it can flexibly adjust to the accumulation of impurities, enhancing the adaptability and intelligence of the entire system.

[0033] like Figure 3 、 Figure 4 and Figure 5 As shown, the water filtration mechanism also includes a drive shaft 46, which is coaxially arranged in the filter tank 41. The top end of the drive shaft 46 is rotatably connected to the top end of the filter tank 41. The circumferential surface of the lower part of the drive shaft 46 is provided with arc-shaped pieces 461 distributed along its circumference. The arc-shaped pieces 461 extend into the water inlet 411, and the drive shaft 46 is transmission-connected to the rotating disk 43.

[0034] As a second rotational mechanism for rotating disk 43, a drive shaft 46 is coaxially mounted vertically within filter tank 41. Its top end is securely connected to the top of filter tank 41 via a rotating connector, ensuring excellent support and guidance during rotation. Several circumferentially extending arcuate segments 461 are evenly distributed along the lower circumferential surface of drive shaft 46. These arcuate segments 461 extend radially outward from drive shaft 46 and into the interior of water inlet 411, forming a disturbance structure that intersects the direction of water flow. As water, driven by the circulating pump, flows at high speed from water inlet 411 into filter tank 41, arcuate segments 461 are driven by the water flow to generate a rotational tendency.

[0035] A transmission connection mechanism is provided between the driving shaft 46 and the rotating disk 43 , so that when the driving shaft 46 is running, it can drive the rotating disk 43 to remove impurities on the filter screen 42 .

[0036] like Figure 5 As shown, the top of the filter tank 41 is also provided with a driven gear 471 distributed circumferentially along the drive shaft 46, and the top of the drive shaft 46 is provided with a driving gear 472, which is engaged with the driven gear 471; the top of the rotating disk 43 is provided with a driving tube 473 coaxial with the drive shaft 46, and the top of the driving tube 473 is provided with an inner gear ring 4731 that forms an internal meshing with the driven gear 471.

[0037] The water filtration mechanism features a vertically arranged drive shaft 46, coaxially mounted within the filter tank 41. Its top end is securely connected to the top of the tank 41 via a rotating mechanism, ensuring structural stability and centering accuracy during rotation. Curved blades 461 are evenly distributed along the lower circumference of the drive shaft 46. These blades extend into the water inlet 411 and, driven by the high-speed water flow introduced by the circulating pump, generate a rotational tendency, thus achieving passive drive.

[0038] As the water impact drives the arc-shaped piece 461 to rotate, the drive shaft 46 rotates accordingly, meshing with the driven gear 471 via the driving gear 472 located on or at a connection point, thereby accurately transmitting the rotational force to the inner ring gear 4731. The inner ring gear 4731 is stably meshed with the drive tube 473, allowing the drive tube 473 to rotate coaxially along the axial direction. The lower end of the drive tube 473 is linked to the rotating disk 43 located at the bottom of the filter tank 41. Driven by the rotation of the drive tube 473, the rotating disk 43 rotates synchronously, thereby continuously scraping and collecting impurities from the water-facing surface of the filter screen 42.

[0039] From the capture of kinetic energy by the curved blades 461, to the transmission of power by the gear train, to the final cleaning action by the rotating disc 43, a complete closed-loop power system is formed. This system automatically removes impurities during the water circulation process without the need for external power, effectively improving the filtration system's operational independence and environmental adaptability.

[0040] like Figure 4 、 Figure 9 and Figure 10 As shown, the inner wall of the water inlet 411 is provided with a narrow opening 413 communicating with the collection channel 44 , and a filter head 414 is provided at the narrow opening 413 . The height of the filter head 414 is higher than the impurity discharge port 45 .

[0041] The rotating disk 43 is internally provided with multiple collection chambers 432. These chambers 432 communicate with a narrow opening 413 on the inner wall of the water inlet 411 via collection channels 44 provided below or in the sidewalls. Driven by a circulating pump, water flows from the water inlet 411 into the filter tank 41 at high speed, creating a significant flow velocity difference. Due to the Bernoulli principle, the accelerated water flow creates a low-pressure area at the narrow opening 413, creating a pressure differential between the collection chambers 432 and the narrow opening 413, which "draws" the water and impurities contained within the collection chambers 432 into the narrow opening 413.

[0042] During this flow, filter head 414 is positioned at narrow opening 413, significantly higher than impurity outlet 45. Filter head 414 blocks larger or denser impurity particles, allowing only relatively clean water to pass through filter head 414 and flow back to water inlet 411, entering the main filtration pathway. This return water then passes through filter screen 42, achieving fine purification before continuing into the next round of water circulation.

[0043] Meanwhile, impurities that fail to pass through filter 414 settle to the bottom of collection channel 44 under the guidance of water flow and gravity, and then slide into impurity outlet 45 at the bottom. Through this mechanism, the system effectively separates pollutants from the circulation path and discharges them outside the system through impurity outlet 45, achieving continuous and automatic sewage drainage.

[0044] like Figure 4 、 Figure 6 and Figure 7 As shown, the water filtering mechanism further includes an impurity squeezing mechanism, which is disposed at the impurity discharge port 45 and is used to squeeze out the water from the impurities discharged from the collection chamber 432 and then discharge the impurities through the impurity discharge port 45 .

[0045] The impurity squeezing mechanism is located at the impurity discharge port 45. Its main function is to fully squeeze out the water contained in the impurities before they are discharged from the system to achieve solid-liquid separation, thereby improving the sewage discharge effect and cleanliness of the entire filtration system.

[0046] Impurities flow from collection chamber 432 through collection channel 44 into impurity outlet 45. After entering impurity outlet 45, they enter the squeezing mechanism directly. This mechanism typically includes a compression structure, which may be a wedge-shaped cavity, elastic pressure plate, spiral propulsion structure, or roller assembly, within which the impurities are continuously squeezed. The water contained in the impurities is forcibly expelled during the compression process and discharged through water guide holes located on the sidewalls or bottom of the compression chamber. The water can be recycled or directly discharged into a wastewater channel.

[0047] The dehydrated impurities, due to their reduced volume and no longer containing free water, are smoothly discharged from the squeezing mechanism and leave the system through the impurity discharge port 45. The entire process is driven by water flow and gravity, without the need for an additional power device, and has the advantages of compact structure and stable operation.

[0048] like Figure 3 and Figure 4 As shown, the impurity squeezing mechanism includes an annular cone head 481 coaxially abutting against the impurity discharge port 45 , and an elastic element 482 is provided at the bottom end of the annular cone head 481 .

[0049] The circumference of the rotating disk 43 extends downward to form a rotating cone 433, and a collection channel 44 is formed between the outer surface of the rotating cone 433 and the inner wall of the filter tank 41. The bottom end of the rotating cone 433 is provided with a coaxial perforated spiral blade 483, which extends to the top of the impurity discharge port 45.

[0050] The annular cone head 481 is coaxially abutted against the impurity discharge outlet 45, and its bottom end is equipped with an elastic element 482, which can produce compliant elastic deformation when impurities enter, thereby achieving buffering compression and moderate closure, which not only blocks large particles from passing directly, but also has a certain dehydration function.

[0051] The rotating disk 43 extends downward around its circumference, forming a rotating cone 433. A gap is left between this cone and the inner wall of the filter tank 41, forming an annular collection channel 44 that guides water and impurities evenly along the circumference into the wastewater discharge path. This channel not only helps stabilize the rate and distribution of impurities collected, but also allows impurities to settle to a certain extent near the cylinder wall before entering the discharge path.

[0052] A coaxially arranged perforated spiral blade 483 is located at the bottom of the rotating cone 433. This perforated spiral blade 483 extends axially to the area above the impurity discharge port 45, functioning as an active diversion and extrusion component. As the rotating disk 43 rotates, the spiral blade guides the axially moving wet impurities forward. Simultaneously, the perforations in the blade allow some moisture to be expelled during the diversion process, thereby achieving a preliminary dehydration effect.

[0053] Finally, impurities trapped in the water are drawn through collection channel 44 and, driven and squeezed by the spiral blades, move toward impurity discharge port 45. They are further dehydrated in the compression zone formed by annular cone 481 and elastic element 482 before being discharged from the outlet. Throughout this process, water and impurities are gradually separated. Impurities are compressed and dehydrated through the multi-stage structure, while water is promptly discharged through the holes or water guide holes, effectively improving separation efficiency and impurity dryness.

[0054] like Figure 3 and Figure 4 As shown, the inner edge of the perforated spiral blade 483 is loosely matched with the outer wall of the filter head 414 .

[0055] As the perforated spiral blade 483 rotates, its inner edge exerts force on the surface of the filter head 414 through this gap, which can peel off the attached impurities from the filter head 414 and push them toward the outlet below. This helps prevent impurities from accumulating on the surface of the filter head 414, thereby improving filtration efficiency.

[0056] The perforated spiral blades 483 not only clean the filter head 414 but also provide a continuous force to help impurities pass through the squeeze mechanism and ultimately be discharged from the outlet. This design reduces the risk of impurity backflow or blockage, ensuring the continuous and stable operation of the filtration system.

[0057] like Figure 3 and Figure 4 As shown, a sealed cavity 49 is provided at the bottom end of the impurity discharge port 45 , the bottom end of the annular cone head 481 extends into the sealed cavity 49 , and the elastic element 482 is located between the annular cone head 481 and the bottom end of the sealed cavity 49 .

[0058] On the basis that the sealing cavity 49 has the impurity collection function, the structure is further optimized so that it is not only a functional area for sealing and squeezing, but also an area integrating multiple functions of short-time collection, centralized discharge, anti-blocking and sealing.

[0059] like Figure 3 and Figure 4 As shown, a collecting ring 491 coaxial with the annular cone head 481 is provided in the sealed cavity 49, the top of the collecting ring 491 is an inclined collecting surface 4911, and the sealed cavity 49 is also provided with an impurity rectification and discharge outlet 492 connected to the bottom of the collecting surface 4911.

[0060] First, the impurities are squeezed and dehydrated by the annular cone 481. The released impurities then move downward under the action of gravity, with the collection ring 491 positioned in their path. The collection ring 491 is coaxial with the annular cone 481, naturally following its direction of discharge, ensuring that the impurities do not disperse or become turbulently distributed within the cavity.

[0061] The top of collection ring 491 is designed with an inclined structure to form collection surface 4911, a crucial optimization point. This inclined surface guides impurities in a specific direction, reducing residue and accumulation. Compared to horizontal or curved surfaces, the inclined structure effectively acts as a "guiding trough" in actual working conditions, quickly converging impurities to the lowest point.

[0062] Connected to the lowest point is the impurity rectification outlet 492, which communicates with the bottom of the collection surface 4911. This means that impurities will eventually flow into this outlet during the sliding process and be discharged from the sealed cavity 49. This rectification design eliminates the need for the impurity discharge path from relying on the overall cavity space. Instead, it utilizes a layered diversion mechanism that collects, guides, and concentrates the impurities, greatly improving discharge efficiency.

[0063] The above embodiments merely represent one or more embodiments of the present invention, and their descriptions are relatively specific and detailed, but they should not be construed as limiting the scope of protection of the present invention. It should be noted that a person of ordinary skill in the art may make various modifications and improvements without departing from the spirit of the present invention, and such modifications and improvements fall within the scope of protection of the present invention. Therefore, the scope of protection of the present invention shall be subject to the appended claims.

Claims

1. A fully enclosed base intelligent massage swimming pool, comprising a swimming pool body, a circulation pump, and a fully enclosed base arranged circumferentially around the swimming pool body, characterized in that: Also included is a water filtration mechanism, the water filtration mechanism comprising: A filter tank is provided at the bottom of the swimming pool body, and has a water inlet at the bottom thereof connected to the swimming pool body, and a water outlet at the top thereof connected to the circulation pump; A filter screen is arranged in the filter tank; A rotating disk is rotatably disposed below the filter screen, wherein a water passage cavity and a collection cavity are provided on the top of the rotating disk, and the water passage cavity is communicated with the water inlet; A collection channel is provided on the inner wall of the filter tank, one end of which is connected to the collection chamber, and the other end of which extends to the outside of the filter tank and is provided with an impurity discharge port; A drive shaft is coaxially disposed in the filter tank, with its top end rotatably connected to the top end of the filter tank, and a lower circumferential surface is provided with arc-shaped pieces distributed along its circumference, the arc-shaped pieces extending into the water inlet, and the drive shaft is drivingly connected to the rotating disk; The inner wall of the water inlet is provided with a narrow opening communicating with the collection channel, and a filter head is provided at the narrow opening, and the height of the filter head is higher than the impurity discharge port; The water filtering mechanism further includes an impurity squeezing mechanism, which is arranged at the impurity discharge outlet and is used to squeeze out the water from the impurities discharged from the collection chamber and then discharge them through the impurity discharge outlet; The impurity squeezing mechanism includes an annular cone head coaxially abutting against the impurity discharge port, and an elastic element is provided at the bottom end of the annular cone head; The circumference of the rotating disk extends downward to form a rotating cone, the collection channel is formed between the outer surface of the rotating cone and the inner wall of the filter tank, and the bottom end of the rotating cone is provided with a coaxial spiral blade with a hole therewith, and the spiral blade with a hole extends to the top of the impurity discharge port; The inner edge of the perforated spiral blade is in clearance fit with the outer wall of the filter head; A sealed cavity is provided at the bottom end of the impurity discharge port, the bottom end of the annular cone head extends into the sealed cavity, and the elastic element is located between the annular cone head and the bottom end of the sealed cavity; A collecting ring coaxial with the annular cone head is provided in the sealing cavity. The top of the collecting ring is an inclined collecting surface. The sealing cavity is also provided with an impurity rectification and discharge outlet connected to the bottom of the collecting surface.

2. The fully enclosed base intelligent massage swimming pool according to claim 1, characterized in that: The top of the filter tank is also provided with a driven gear distributed along the circumference of the drive shaft, and the top of the drive shaft is provided with a driving gear, and the driving gear is meshed with the driven gear; A driving tube coaxial with the driving shaft is provided at the top end of the rotating disk, and an inner gear ring is provided at the top end of the driving tube to form an inner meshing engagement with the driven gear.

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