Tai Chi spring water show device

Abstract

The utility model discloses a kind of taiji spring show equipment, belong to the technical field of fountain, including taiji spring body, this taiji spring body includes pedestal, motor, rotary drum, transmission assembly, water supply slip ring, inner rotating water chamber, inner ring nozzle, outer rotating water chamber and outer ring nozzle, pedestal is provided with inner ring water supply interface and inner passage;Motor is set on pedestal, its output shaft is connected rotary drum, and output shaft is set as hollow shaft that is connected inner passage and rotary drum;Rotary drum is connected inner rotating water chamber, and inner rotating water chamber is connected inner ring nozzle;Water supply slip ring includes outer water jacket and inner water jacket, outer water jacket is set on motor, and inner water jacket is connected on rotary drum by transmission assembly, and inner water jacket is connected outer rotating water chamber, and outer rotating water chamber is connected outer ring nozzle;Outer ring water supply interface is set on outer water jacket;By motor cooperation transmission assembly, the inner ring nozzle and outer ring nozzle of two independent water supply are realized synchronous positive and negative staggered rotation action. This taiji spring show equipment is by designing double-layer independent water supply structure, and based on single motor drive, the independent positive and negative staggered rotation of inner ring nozzle and outer ring nozzle is implemented, forms inner and outer interlaced and gorgeous taiji or flower basket effect, to realize the diversification of fountain water landscape effect.

Description

Technical Field

[0001] This utility model belongs to the field of fountain technology and provides a Tai Chi fountain water show device, which can be applied to various small, medium and large fountain pools, lakes and rivers fountain water show projects. Background Technology

[0002] With urban development, fountains have become a beautiful urban landscape. In recent years, high-tech CNC fountains have been increasingly used in urban fountain projects. Combined with aesthetic design and music and lighting, they create a three-dimensional effect. In this process, the water flow is manipulated, scattering and refracting light, thus producing a three-dimensional image. Musical fountains, changing with the music, add a beautiful visual and auditory feast to city dwellers at night, providing a romantic and relaxing entertainment option in the fast-paced urban lifestyle. However, existing double-layered flower-shaped nozzles typically use a circular balance tank to spray two layers of flower-shaped water jets. Both the inner and outer nozzles are supplied with water from the same balance tank, and the fountain equipment can only be turned on and off through programming. This limits the water feature's choreography, resulting in a relatively simple or ordinary spraying effect. Utility Model Content

[0003] In order to overcome the shortcomings of the existing technology, the purpose of this utility model is to provide a Tai Chi spring water show device that solves the problems of double-layer flower spray nozzles sharing a single balance tank and the limited diversity of water show effects.

[0004] To achieve the above objectives, this utility model provides the following technical solution:

[0005] This utility model discloses a Taiji Spring water show device, including a Taiji Spring body. The Taiji Spring body includes a base, a motor, a rotating drum, a transmission assembly, a water supply slip ring, an inner rotating water chamber, an inner ring nozzle, an outer rotating water chamber, and an outer ring nozzle. The base is provided with an inner ring water supply interface and an inner channel that are interconnected. The motor is mounted on the base, and its output shaft is drivenly connected to the rotating drum. The output shaft is configured as a hollow shaft for connecting the inner channel and the rotating drum. The top of the rotating drum is provided with an inner rotating water chamber that is connected thereto. At least two inner rotating water nozzles are arranged radially around the inner rotating water chamber and are connected thereto. The ring nozzle; the water supply slip ring includes an outer water jacket and an inner water jacket that are rotatably connected to each other. The outer water jacket is fixedly mounted on the motor, and the inner water jacket is connected to the rotating drum through a transmission assembly. The top of the inner water jacket is provided with an outer rotating water chamber that communicates with it, and the outer rotating water chamber is located below the inner rotating water chamber. At least two outer ring nozzles that communicate with it are arranged radially around the outer rotating water chamber. The outer water jacket is provided with an outer ring water supply interface that communicates with the cavity between the inner water jacket and the outer water jacket. The transmission assembly, in conjunction with the motor, enables the inner ring nozzles and outer ring nozzles with two independent water supply lines to achieve synchronous forward and reverse alternating rotation.

[0006] The working principle of the above technical solution is as follows: Independent water supply: The inner and outer ring nozzles are supplied with water through independent water supply systems, ensuring independent adjustment of water flow and pressure. Synchronous rotation: Through the cooperation of motors and transmission components, the inner and outer ring nozzles can achieve synchronous alternating forward and reverse rotation, creating diverse dynamic rotational effects. This design not only enhances the fountain's visual appeal but also allows for adjustments to the water flow according to different occasions and needs. Detachable structure: The components are designed for detachable connection, facilitating equipment maintenance and reducing long-term operating costs. Thus, through the above design and flexible structural configuration, this Tai Chi Spring Water Show equipment not only provides rich waterscape effects but also becomes an important part of the modern urban landscape, bringing people a unique visual enjoyment and romantic experience.

[0007] Optionally, a lower flange seat is fixedly mounted on the motor; the water supply slip ring also includes an upper flange seat and a middle flange seat arranged symmetrically on the outer water jacket and rotatably connected to the inner water jacket; the lower flange seat, middle flange seat, and upper flange seat are sequentially fixedly connected by long bolts. Thus, through the optimized design of the water supply slip ring and its flange seat structure, the stability and spraying effect of the Taiji Spring Water Show equipment in practical applications are significantly improved, providing a strong guarantee for the expressiveness and aesthetics of the fountain.

[0008] Optionally, the transmission assembly includes a driving gear, a lower transmission gear, an upper transmission gear, and a driven gear. The driving gear is fixedly mounted on the rotating drum, and the driven gear is rotatably mounted on the drum above the driving gear. A lower transmission gear, meshing with the driving gear, is connected to the lower flange seat and the middle flange seat via a first rotating shaft. An upper transmission gear, meshing with both the lower and driven gears, is also connected to the lower flange seat and the middle flange seat via a second rotating shaft. The inner water jacket is fixedly mounted on the driven gear. Because the inner ring nozzles rotate in the same direction as the rotating drum, while the outer water jacket and outer ring nozzles rotate in the opposite direction due to the design of the transmission assembly, this Tai Chi water show equipment can achieve alternating forward and reverse rotation of the inner and outer ring nozzles, creating a more vivid water feature effect and enhancing the dynamic expressiveness of the fountain.

[0009] Optionally, the rotating connection structures between the upper flange seat and the middle flange seat and the inner water jacket, and between the driven gear and the outer rotating water chamber and the rotating drum, respectively, all employ bearings or copper bushings. This design, using bearings or copper bushings as the rotating connection structures, ensures that the Taiji Spring Water Show equipment maintains overall stability and durability while achieving complex rotating movements.

[0010] Optionally, a sleeve for sealing the transmission components is provided between the lower flange seat and the middle flange seat. This sleeve design effectively seals and protects the transmission components of the Tai Chi Spring Show equipment, reducing the impact of the external environment on the equipment and improving its durability and stability.

[0011] Optionally, a servo motor, a geared motor, or a worm gear motor can be used. These motor types provide precise control and sufficient torque to meet the rotational requirements of the drum. Choosing the appropriate motor type can improve the efficiency and reliability of the equipment, ensuring smooth operation of the fountain.

[0012] Optionally, the inner water jacket is configured as a hollow concentric annular structure with radial screen holes in the outer ring wall, axial annular holes on the top surface, and axial holes in the inner ring wall. The outer rotating water chamber has hollow holes and axial annular holes on the bottom surface. The rotating cylinder passes through the axial holes in the inner ring wall and the hollow holes in sequence. The outer ring water supply interface is connected to the axial annular holes on the top surface through the radial screen holes in the outer ring wall, and the holes on the bottom surface and the top surface are connected in a one-to-one correspondence. This design offers the following advantages: efficient water flow distribution. Through carefully designed channels and flow paths, the inner water jacket and outer rotating water chamber can achieve efficient water flow distribution, ensuring the stability of the nozzle's water supply. Increased rotational freedom; the rotational design of the rotating cylinder is not affected by the inner water jacket and outer rotating water chamber, ensuring smooth operation of the equipment. Enhanced fountain effect; this design optimizes the fountain's hydrodynamics, allowing the fountain to display richer and more beautiful water features during operation.

[0013] Optionally, the top of the outer rotating water chamber is equipped with a detachably connected annular cover, on which the outer ring nozzles are mounted. This offers several advantages: efficient maintenance—the detachable annular cover design simplifies cleaning and maintenance of the outer rotating water chamber, facilitating regular nozzle inspection and cleaning to ensure proper fountain operation; and flexibility and adaptability—by adjusting the position of the outer ring nozzles, the equipment can adapt to different occasions and needs, showcasing diverse water feature effects.

[0014] Optionally, both the inner and outer ring nozzles utilize direct current nozzles, with each nozzle integrating a ball head and ball seat assembly, providing flexible adjustment capabilities for the fountain equipment. This offers advantages such as: enhanced visual appeal—by flexibly adjusting the nozzle angle, the fountain can display richer water flow effects, attracting more attention from viewers; and flexibility and adaptability—the adjustable nozzle design allows the equipment to adapt to different environments and occasions, meeting diverse needs.

[0015] Optionally, the components below the outer rotating water chamber of the Taiji Spring are enclosed in a chassis. The side walls of the chassis are equipped with water inlet pipes and ventilation holes. The water inlet pipes connect to both the inner and outer ring water supply interfaces. The bottom of the chassis has a sealing plate with a cable inlet hole, and the top of the chassis features neon lights. This integration of multiple functions significantly enhances the practicality and aesthetics of the Taiji Spring water show equipment. Through effective water supply, heat dissipation management, and lighting coordination, the equipment is not only functionally optimized but also visually enhanced.

[0016] Compared with the prior art, the beneficial effects of this utility model are as follows: This Tai Chi water show device is designed with a double-layer independent water supply structure, which supplies water to the inner ring nozzles and the outer ring nozzles respectively. Based on the transmission of a single motor drive and transmission components, it ensures the effective distribution of water flow and avoids the impact of poor water flow on the spray effect. At the same time, it implements the independent forward and reverse rotation of the inner ring nozzles and the outer ring nozzles to form a dazzling Tai Chi or flower basket effect, thereby achieving a diversification of fountain water feature effects.

[0017] In summary, this Tai Chi Spring Water Show equipment, with its efficient water flow management, flexible nozzle adjustment, stable operation, and beautiful visual effects, has become an important art installation in modern urban landscapes, providing the public with a unique visual experience.

[0018] Other advantages, objectives, and features of this invention will be set forth in part in the description which follows, and in part will be apparent to those skilled in the art from the following examination and study, or may be learned from practice of this invention. The objectives and other advantages of this invention can be realized and obtained through the following description. Attached Figure Description

[0019] To make the objectives, technical solutions, and advantages of this utility model clearer, the preferred embodiments of this utility model will be described in detail below with reference to the accompanying drawings, wherein:

[0020] Figure 1 This is a perspective view of the Tai Chi Spring Water Show equipment of this utility model;

[0021] Figure 2 for Figure 1 Another perspective 3D view;

[0022] Figure 3 for Figure 1 A three-dimensional diagram of the Taiji Spring's vertical jetting structure.

[0023] Figure 4 for Figure 3 A schematic diagram of the shaft portion;

[0024] Figure 5 for Figure 3A partial subdivision diagram;

[0025] Figure 6 for Figure 5 Front view illustration;

[0026] Figure 7 for Figure 1 A three-dimensional image of the Taiji Spring body in a tilted, jetting pattern;

[0027] Figure 8 for Figure 7 Partially exploded diagram;

[0028] Figure 9 for Figure 8 Front view of the transmission components;

[0029] Figure 10 for Figure 8 Three-dimensional diagram of the inner water jacket;

[0030] Figure 11 for Figure 3 Top view diagram;

[0031] Figure 12 for Figure 4 A schematic diagram of the water supply flow direction of the outer ring of the Taiji Spring in the middle;

[0032] Figure 13 for Figure 4 A schematic diagram of the water supply flow within the inner circle of the Taiji Spring.

[0033] Reference numerals: 1-Base; 1a-Inner ring water supply interface; 1b-Inner channel; 2-Motor; 3-Rotating drum; 4-Inner rotating water chamber; 5-Inner ring nozzle; 6-Lower flange seat; 7-Sleeve; 8-Middle flange seat; 9-Upper flange seat; 10-Long screw; 11-Outer water jacket; 11a-Outer ring water supply interface; 12-Inner water jacket; 12a-Outer ring wall radial screen hole; 12b-Top surface axial ring hole; 12c-Inner ring wall shaft Hole; 13-Drive gear; 14-Lower transmission gear; 14a-First rotating shaft; 15-Upper transmission gear; 15a-Second rotating shaft; 16-Driven gear; 17-Outer rotating water chamber; 17a-Hollow hole; 17b-Bottom axial ring hole; 18-Ring cover; 19-Outer ring nozzle; 20-Chassis; 20a-Water inlet pipe; 20b-Heat dissipation hole; 20c-Neon light; 20d-Sealing plate; 20e-Wire inlet hole. Detailed Implementation

[0034] The technical features of this utility model will be further described in detail below with reference to the accompanying drawings so that those skilled in the art can understand them.

[0035] like Figure 3-11As shown, this Tai Chi Spring water show equipment includes a Tai Chi Spring body, which includes a base 1, a motor 2, a rotating drum 3, a transmission assembly, a water supply slip ring, an inner rotating water chamber 4, an inner ring nozzle 5, an outer rotating water chamber 17, and an outer ring nozzle 19. The base 1 serves as the supporting structure for the entire equipment, providing stability. It is equipped with an inner ring water supply interface 1a and an inner channel 1b that are interconnected, ensuring the transmission of water flow. The motor 2 is mounted on the base 1 and is mainly used to drive the rotating drum 3 to rotate. Its output shaft is connected to the rotating drum 3 to ensure the stability and consistency of rotation. The rotating drum 3 rotates through the drive of the motor 2 and transmits power to other components, such as the transmission assembly. The transmission assembly is responsible for continuing to transmit the driving force of the motor 2, and its output shaft is set as a hollow shaft for connecting the inner channel 1b and the rotating drum 3. The design of the rotating drum ensures the smooth distribution of water flow. The top of the rotating drum 3 is equipped with an inner rotating water chamber 4 that communicates with it. At least two inner ring nozzles 5 are arranged radially around the inner rotating water chamber 4 and communicate with it. That is, the inner rotating water chamber 4 is responsible for distributing water flow to each inner ring nozzle 5, and the inner ring nozzles 5 are responsible for spraying water. The number of these inner ring nozzles 5 can be flexibly adjusted according to needs, and is usually set to four, as shown in the example attached. Figure 11 The four shown are designed to achieve a Tai Chi-style or flower basket-style fountain effect. Of course, in different examples, depending on user needs, cost, or design requirements, two, three, five, six, etc., can also be used. The water supply slip ring includes an outer water sleeve 11 and an inner water sleeve 12 that are rotatably connected. The outer water sleeve 11 is fixedly mounted on the motor 2, and the inner water sleeve is connected to the rotating drum 3 via a transmission assembly. That is, the inner water sleeve 12 can rotate relative to the outer water sleeve 11 following the transmission assembly, while the outer water sleeve 11 is fixed to the motor 2. This not only achieves independent and flexible water supply but also ensures that the outer ring water supply interface 11a of the outer water sleeve 11 does not rotate. The fixed connection between the components can be achieved using screws or similar means for detachable connection, making the equipment easy to disassemble and maintain, and reducing long-term operating costs. The inner water jacket has an outer rotating water chamber 17 at its top, which is located below the inner rotating water chamber 4. At least two outer ring nozzles 19 are arranged radially around the outer rotating water chamber 17 and are connected to it. The outer rotating water chamber 17 distributes water flow to each outer ring nozzle 19, which in turn spray water. The number of outer ring nozzles 19 can be set according to requirements, but is typically eight, as shown in the example attached. Figure 11The eight fountains shown are designed to create a Tai Chi-shaped or flower basket-shaped fountain effect. Of course, in different examples, depending on user needs, cost, or design requirements, two, three, four, five, six, seven, nine, ten, etc., can be used. The outer water jacket 11 is equipped with an outer ring water supply interface 11a that communicates with the cavity between the inner water jacket 12 and the outer ring water jacket 12. A transmission component, in conjunction with a motor 2, enables the inner ring nozzles 5 and outer ring nozzles 19, which have two independent water supply lines, to rotate synchronously in opposite directions, creating diverse dynamic effects from the rotation of the Tai Chi fountain body. This Tai Chi fountain water show equipment is not only suitable for landscaping in public places such as city squares and parks, but can also be used in commercial centers, exhibitions, festivals, and other occasions to enhance the atmosphere and attract the attention of tourists and citizens. Through innovative fountain design, the equipment is expected to become an important part of the modern urban landscape, providing people with a unique visual experience.

[0036] Using the above scheme, the water supply structure of this Tai Chi Spring Water Show equipment is divided into inner and outer layers. The inner ring nozzle 5 is supplied with water by the inner ring water supply interface 1a with the lowest DN50 internal thread interface, while the outer ring nozzle 19 is supplied with water by the outer ring water supply interface 11a with the upper DN50 external thread interface. This allows the water pattern effect to be performed by the inner ring nozzle 5 or the outer ring nozzle 19 individually, or they can be coupled synchronously. Since the water pump (not shown) is separately frequency-controlled, the water pattern of the inner and outer rings can be freely switched and the height can be changed while the motor 2 is rotating, so as to show more water pattern effects. This allows the alternating rotation of the inner and outer ring nozzles to form a dazzling Tai Chi Spring or flower basket effect.

[0037] In this embodiment, a lower flange seat 6 is fixedly mounted on the motor 2 to provide basic support for the entire water supply slip ring. This ensures that the outer water sleeve 11 and its outer ring water supply interface 11a remain fixed, preventing water supply instability caused by vibration during equipment operation. The water supply slip ring also includes an upper flange seat 9 and a middle flange seat 8, symmetrically arranged on the outer water sleeve 11 and rotatably connected to the inner water sleeve 12. The middle flange seat 8 is located between the lower flange seat 6 and the upper flange seat 9, serving as a connection and support, and its symmetrical arrangement enhances the stability of the entire water supply slip ring structure. The lower flange seat 6, middle flange seat 8, and upper flange seat 9 are sequentially fixedly connected by long screws 10. The long screws 10 and their matching nuts connect the lower flange seat 6, middle flange seat 8, and upper flange seat 9 in series, and the lower flange seat 6, fixedly mounted on the motor 2 housing, ensures a tight connection between the flange seats. The use of the long screw 10 not only provides structural stability and integrity but also facilitates later disassembly and maintenance. It also ensures the outer water sleeve 11 and its outer ring water supply interface 11a of the water supply slip ring remain stationary, thereby improving water flow stability and nozzle spray effect. The overall structural advantages include: structural integrity: the series fixation of the flange seats makes the overall structure of the water supply slip ring more stable, avoiding loosening or displacement during equipment operation. Water flow stability: the stationary outer water sleeve ensures a continuous and stable water supply to each nozzle, improving the nozzle spray effect and making the water column shape more beautiful and smooth. Improved spray effect: due to the optimized design of the water supply slip ring, the nozzles can obtain a uniform water flow during operation, thus achieving richer water feature effects.

[0038] In this embodiment, the transmission assembly includes a drive gear 13, a lower drive gear 14, an upper drive gear 15, and a driven gear 16. The drive gear 13 is fixedly mounted on the rotating drum 3, and the driven gear 16 is rotatably mounted on the rotating drum 3 above the drive gear 13. The lower drive gear 14, which meshes with the drive gear 13, is mounted between the lower flange seat 6 and the middle flange seat 8 via a first rotating shaft 14a. The upper drive gear 15, which meshes with both the lower drive gear 14 and the driven gear 16, is also mounted between the lower flange seat 6 and the middle flange seat 8 via a second rotating shaft 15a. The inner water jacket 12 is fixedly mounted on the driven gear 16. The power transmission path is as follows: the motor 2 drives the rotating drum 3 to rotate, and the rotating drum 3 drives the inner rotating water chamber 4 and the drive gear 13 to rotate. The rotation of the drive gear 13 transmits power through the lower transmission gear 14. The rotation of the lower transmission gear 14 further drives the upper transmission gear 15. The upper transmission gear 15 meshes with the driven gear 16, thereby driving the inner water jacket 12 and the outer rotating water chamber 17 to rotate. Therefore, this transmission assembly makes the rotation direction of the rotating drum 3, the inner rotating water chamber 4 and the inner ring nozzle 5 driven by the motor 2 opposite to the rotation direction of the inner water jacket 12, the outer rotating water chamber 17 and the outer ring nozzle 19 driven by the rotating drum 3 through the transmission assembly, so that the inner ring nozzle 5 and the outer ring nozzle 19 form a forward and reverse alternating rotation effect.

[0039] In this embodiment, the rotating connection structures between the upper flange seat 9 and the middle flange seat 8 and the inner water jacket 12, and between the driven gear 16 and the outer rotating water chamber 17 and the rotating drum 3, all employ bearings or copper bushings. This ensures that each component can rotate freely during mutual rotation while maintaining the overall stability of the equipment. Specifically, bearings support and guide rotating components, reducing friction and allowing for free rotation. Bearings can withstand large loads while providing good rotational accuracy. Copper bushings, as a wear-resistant material, provide additional durability in rotating connections, reducing wear and extending the equipment's service life.

[0040] In this embodiment, a sleeve 7 is provided between the lower flange seat 6 and the middle flange seat 8 to seal the transmission assembly. The main function of the sleeve 7 is to seal the transmission assembly, ensuring that the internal gears and other moving parts are not affected by external dust, moisture, and other contaminants. This sealing design effectively prevents water from splashing into the transmission assembly, avoiding corrosion or mechanical failure caused by water intrusion, thereby extending the service life of the equipment. At the same time, the design of the sleeve 7 makes the maintenance and repair of the transmission assembly more convenient. Users can inspect and maintain the transmission assembly by removing the sleeve without completely disassembling the equipment. This design improves the maintainability of the equipment and saves maintenance time and costs.

[0041] In this embodiment, motor 2 is a servo motor, a geared motor, or a worm gear motor. These motor types can provide precise control and sufficient torque to meet the rotation requirements of the drum 3. Selecting a suitable motor type can improve the working efficiency and reliability of the equipment. In addition, the inner ring nozzle 5 is supplied with water from the lower end of the hollow shaft (output shaft) of motor 2, which provides rotational power. Motor 2 has a waterproof skeleton oil seal design, which can achieve both rotational power output and water supply during rotation. The outer ring nozzle 19 is supplied with water by an annular sealed rotatable water supply slip ring (outer water jacket + inner water jacket), which can also achieve both rotation and water supply and has an independent water supply external thread connector.

[0042] In this embodiment, the inner water jacket 12 is configured as a hollow concentric annular cylinder structure with multiple channels to facilitate water flow and distribution. It has radial sieve holes 12a in the outer annular wall to allow water to enter from the outside, an axial annular hole 12b on the top surface for communication with the outer rotating water chamber 17, and an axial hole 12c in the inner annular wall to allow the rotating cylinder 3 to pass through without affecting its rotation. The outer rotating water chamber 17 has a hollow hole 17a and a bottom axial annular hole 17b. The rotating cylinder 3 passes through the axial hole 12c in the inner annular wall. 2c and hollow hole 17a, the rotation of the rotating drum 3 does not interfere with the inner water jacket 12 and the outer rotating water chamber 17, that is, they are in clearance fit or rotational fit, ensuring that no interference occurs during rotation; the outer ring water supply interface 11a is connected to the top axial ring hole 12b through the radial screen hole 12a of the outer ring wall, so that water can flow smoothly between the inner water jacket 12 and the outer rotating water chamber 17, and the holes of the bottom axial ring hole 17b and the top axial ring hole 12b are connected in a one-to-one correspondence.

[0043] In this embodiment, the top of the outer rotating water chamber 17 is provided with a circular cover 18 that is detachably connected to it, and the outer ring nozzle 19 is disposed on the circular cover 18. This design makes maintenance and repair more convenient. Users can easily remove the circular cover and quickly access the internal components through threaded connections, snaps, or other forms of connections. At the same time, it is necessary to ensure the sealing between the circular cover 18 and the outer rotating water chamber 17 to ensure smooth water supply. It also simplifies the assembly process. During the production and maintenance phases, technicians can perform installation and disassembly more quickly, reducing labor intensity and operation time.

[0044] In this embodiment, both the inner ring nozzle 5 and the outer ring nozzle 19 employ direct current nozzles, designed to provide a stable and uniform water flow, ensuring consistent spraying effects. These direct current nozzles can form an ideal water column under specific water pressure, enhancing the fountain's visual appeal. The direct current nozzles integrate a ball-head and ball-seat assembly, allowing for adjustment at multiple angles. This assembly provides a high degree of freedom, enabling the direct current nozzles to be adjusted at various angles, such as tilting. This adjustable design allows the operator to flexibly change the angle of the direct current nozzle relative to the vertical direction, thereby achieving different spraying effects and water flow patterns, such as high spray, low spray, and angled spray, to meet diverse visual requirements.

[0045] like Figure 1-2 As shown, the components below the outer rotating water chamber 17 of the Taiji Spring body are enclosed by a housing 20. The side wall of the housing 20 is equipped with a water inlet pipe 20a and a heat dissipation hole 20b. The water inlet pipe 20a connects to the inner ring water supply interface 1a and the outer ring water supply interface 11a, respectively, allowing external water to be supplied to the inner ring nozzles 5 and the outer ring nozzles 19, ensuring that the nozzles can spray water normally. The heat dissipation hole 20b is crucial for the heat dissipation of the motor 2, preventing the equipment from malfunctioning due to overheating during operation. The bottom of the housing 20 is equipped with a sealing plate 24d with a cable inlet hole 20e, allowing the power supply cable pre-buried in the foundation to enter the housing 20 through this cable inlet hole 20e to power the motor 2 and other electrical components. This design ensures the safety and convenience of power connection. The sealing plate 20d serves to enclose the housing 20. A neon light 20c is installed on the top of the housing 20. This lighting device visually complements the water flow from each nozzle, enhancing the fountain's aesthetic appeal. The dynamic changes of the neon lights 20c, combined with the spray of water, can create a richer and more attractive water feature performance. Of course, in different examples, waterproof motors are used, making the device suitable for underwater deployment in various underwater environments (such as lakes and urban fountains).

[0046] like Figure 12 As shown, the water supply to the outer ring nozzles 19, one of the water flow paths, is as follows: water enters the cavity between the outer water jacket 11 and the inner water jacket 12 through the outer ring water supply interface 11a. Then, it enters the inner water jacket 12 through the radial screen holes 12a on the outer ring wall, allowing the water flow to remain smooth during the process of entering the inner water jacket 12 and avoiding blockage. Then, it enters the outer rotating water chamber 17 through the axial ring hole 12b on its top surface and the axial ring hole 17b on the bottom surface of the matched outer rotating water chamber 17, allowing the water flow to be effectively transferred from the inner water jacket 12 to the outer rotating water chamber 17, forming a good water flow channel. Finally, the water is distributed by the outer rotating water chamber 17 to each outer ring nozzle 19 to form the outer ring spray water effect, thereby ensuring that the outer ring nozzles 19 can spray water evenly and improve the viewing effect of the fountain.

[0047] like Figure 13 As shown, the water supply for the inner ring nozzles 5, the second water flow path, is as follows: water enters the inner channel 1b of the base 1 through the inner ring water supply interface 1a, and then is transported to the rotating drum 3 through the hollow shaft of the motor 2, ensuring that the water flow can smoothly and continuously pass through while the motor 2 is rotating. Finally, it enters the inner rotating water chamber 4 and is distributed to each inner ring nozzle 5 to form the inner ring spray water effect, thereby ensuring that the inner ring nozzles 5 can spray water evenly and improve the viewing effect of the fountain.

[0048] The overall effects of the two water flow paths described above include: efficient water flow management, ensuring that the inner and outer ring nozzles can effectively obtain water, avoiding poor spraying effects due to obstructed water flow; enhanced fountain performance, as the reasonable water flow distribution allows the fountain to present richer and more diverse waterscape effects, attracting the attention of viewers; and improved equipment reliability, as this design enhances the overall reliability of the equipment, ensuring that the fountain can still operate stably under different working conditions.

[0049] The core innovative features of this Tai Chi Spring Water Show equipment are as follows:

[0050] 1. Dual-layer independent water supply structure. The equipment adopts separate water supply paths: the inner ring nozzles are supplied with water through the inner channel of the base, the hollow shaft of the motor, and the rotating drum; the outer ring nozzles are supplied with water independently through water supply slip rings (outer water jacket and inner water jacket). This solves the problems of uneven water flow distribution and monotonous effect caused by single-tank water supply in the prior art, and realizes precise control of water flow. For example, the inner ring nozzles can perform independently or coupled with the outer ring.

[0051] 2. Single-motor driven alternating rotation mechanism. A single motor (such as a servo motor or geared motor) drives the inner and outer ring nozzles to rotate synchronously but in opposite directions via a transmission assembly (drive gear, lower transmission gear, upper transmission gear, and driven gear). The inner ring nozzles rotate in the same direction as the rotating drum, while the outer ring nozzles rotate in the opposite direction via gears, creating an alternating dynamic effect (such as a Tai Chi or flower basket shape), significantly enhancing visual diversity.

[0052] 3. Optimized integration of the water supply slip ring and transmission components. The water supply slip ring (outer and inner water jackets) allows for continuous water supply during rotation, while the bearing / copper bushing design of the transmission components reduces friction; the "radial screen holes on the outer ring wall" and "axial ring holes on the top surface" of the inner water jacket ensure efficient water distribution. This mechanical integration solves the sealing and power transmission problems in rotating equipment.

[0053] 4. Adjustable and detachable design. The nozzle adopts a DC nozzle integrated ball head and ball seat assembly, with an adjustable angle (such as tilt spray); the top of the outer rotating water chamber is equipped with a detachable circular cover for easy maintenance. This improves the adaptability and service life of the equipment.

[0054] 5. Enhanced functionality and aesthetics through overall structure: The chassis design integrates water pipes, ventilation holes, and neon lights, optimizing water flow management, heat dissipation, and lighting effects, achieving a combination of practicality and art.

[0055] Finally, it should be noted that the above embodiments are only used to illustrate the technical solution of this utility model and are not intended to limit it. Although this utility model has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solution of this utility model without departing from the spirit and scope of this technical solution, and all such modifications or substitutions should be covered within the scope of the claims of this utility model.

Claims

1. A Tai Chi Spring Water Show device, characterized in that, The device includes a Taiji Spring body, which comprises a base (1), a motor (2), a rotating drum (3), a transmission assembly, a water supply slip ring, an inner rotating water chamber (4), an inner ring nozzle (5), an outer rotating water chamber (17), and an outer ring nozzle (19). The base (1) is provided with an inner ring water supply interface (1a) and an inner channel (1b) that are interconnected. The motor (2) is mounted on the base (1), and its output shaft is connected to the rotating drum (3) in a driving manner. The output shaft is configured as a hollow shaft for connecting the inner channel (1b) and the rotating drum (3). The top of the rotating drum (3) is provided with the inner rotating water chamber (4) that is connected thereto. At least two inner ring nozzles (5) that are connected thereto are arranged radially around the inner rotating water chamber (4). The water supply slip ring includes an outer water sleeve (11) and an inner water sleeve (12) rotatably connected to each other. The outer water sleeve (11) is fixedly mounted on the motor (2). The inner water sleeve is connected to the rotating drum (3) through the transmission assembly. The top of the inner water sleeve is provided with an outer rotating water chamber (17) communicating with it. The outer rotating water chamber (17) is located below the inner rotating water chamber (4). At least two outer ring nozzles (19) communicating with it are arranged radially around the outer rotating water chamber (17). The outer water sleeve (11) is provided with an outer ring water supply interface (11a) communicating with the cavity between the inner water sleeve (12). The transmission assembly, in conjunction with the motor (2), enables the inner ring nozzle (5) and outer ring nozzle (19) with two independent water supply lines to achieve synchronous forward and reverse alternating rotation.

2. The Tai Chi Fountain Show apparatus according to claim 1, wherein, The motor (2) is fixedly provided with a lower flange seat (6); the water supply slip ring also includes an upper flange seat (9) and a middle flange seat (8) arranged symmetrically on the outer water jacket (11) and rotatably connected to the inner water jacket (12); the lower flange seat (6), the middle flange seat (8) and the upper flange seat (9) are fixedly connected in sequence by a long screw (10).

3. The Tai Chi Fountain Show apparatus according to claim 2, wherein, The transmission assembly includes a drive gear (13), a lower drive gear (14), an upper drive gear (15), and a driven gear (16). The drive gear (13) is fixedly mounted on the rotating drum (3). The driven gear (16) is rotatably mounted on the rotating drum (3) above the drive gear (13). The lower drive gear (14) is connected to the middle flange seat (8) via a first rotating shaft (14a) and meshes with the drive gear (13). The upper drive gear (15) is also connected to the middle flange seat (8) via a second rotating shaft (15a) and meshes with both the lower drive gear (14) and the driven gear (16). The inner water jacket (12) is fixedly mounted on the driven gear (16).

4. The Tai Chi Fountain Show apparatus according to claim 3, wherein, The rotational connection structures between the upper flange seat (9) and the middle flange seat (8) and the inner water jacket (12), and between the driven gear (16) and the outer rotating water chamber (17) and the rotating drum (3), respectively, all adopt bearings or copper sleeves.

5. The Tai Chi Fountain Show apparatus according to any one of claims 2-4, characterized in that, A sleeve (7) for sealing the transmission assembly is provided between the lower flange seat (6) and the middle flange seat (8).

6. The Tai Chi Spring Water Show equipment according to claim 1, characterized in that, The motor (2) is a servo motor, a geared motor or a worm gear motor.

7. The Tai Chi Fountain Show apparatus according to claim 1, wherein, The inner water jacket (12) is configured as a hollow concentric ring cylinder structure, which has an outer ring wall radial screen hole (12a), a top surface axial ring hole (12b) and an inner ring wall shaft hole (12c); the outer rotating water chamber (17) is provided with a hollow hole (17a) and a bottom surface axial ring hole (17b); the rotating cylinder (3) passes through the inner ring wall shaft hole (12c) and the hollow hole (17a) in sequence; the outer ring water supply interface (11a) and the top surface axial ring hole (12b) are connected through the outer ring wall radial screen hole (12a), and the bottom surface axial ring hole (17b) and the top surface axial ring hole (12b) are connected in a one-to-one correspondence.

8. The Tai Chi Fountain Show apparatus according to claim 1, wherein, The top of the outer rotating water chamber (17) is provided with a circular cover (18) that is detachably connected thereto, and the outer ring nozzle (19) is provided on the circular cover (18).

9. The Tai Chi Fountain Show apparatus according to claim 1, wherein, Both the inner ring nozzle (5) and the outer ring nozzle (19) are DC nozzles, and the DC nozzles are integrated with a ball head and ball seat pair.

10. The Tai Chi Fountain Show apparatus according to claim 1, wherein, The components below the outer rotating water chamber (17) of the Taiji Spring body are enclosed in a machine box (20). A water inlet pipe (20a) and a heat dissipation hole (20b) are provided on the side wall of the machine box (20). The water inlet pipe (20a) is connected to the inner ring water supply interface (1a) and the outer ring water supply interface (11a) respectively. A sealing plate (24d) with a wire inlet hole (20e) is provided at the bottom of the machine box (20). A neon light (20c) is provided at the top of the machine box (20).

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