Multifunctional water show fountain device

Abstract

The present application relates to the field of fountain water show, and specifically discloses a multifunctional water show fountain device, which includes a water mist nozzle; a water flow nozzle; an irradiation component; a wind-force mist rolling component, which is used to form multiple axial wind outlets, a hurricane cavity connected to the multiple outlets, and an exhaust port connected to the hurricane cavity; multiple outlets are distributed in a circular array around a fixed axis, and multiple outlets are opposite to the fixed axis; the exhaust port is used to discharge the air in the hurricane cavity from bottom to top and form a ring-shaped spiral wind area. The present application has a method of using a water mist nozzle and a water flow nozzle to spray water mist and water column at the same time, which can improve the ornamental effect. After the water mist is sprayed outward, it will float upward in a spiral form under the action of the spiral wind, so that the water mist will move in a spiral trajectory. After the irradiation component is irradiated on the water mist, the water mist will appear as small droplets moving in the air, which has a more beautiful ornamental effect.

Description

Technical Field

[0001] The present application relates to the field of fountain water shows, and in particular to a multifunctional water show fountain device. Background Art

[0002] At present, fountain water show uses nozzles to spray water from different positions and to different heights, and uses lights of various colors to illuminate the water sprayed from the nozzles, resulting in a highly ornamental fountain water show performance.

[0003] Generally speaking, nozzles are mainly used to spray water upward in the form of columns, but the water column requires a large amount of water to be sprayed out quickly and the water column exists in the air for a very short time, so the viewing time of a single water column is very short. In order to improve the viewing experience, a large number of water columns are often required to increase the viewing range and viewing time.

[0004] With respect to the above-mentioned related technologies, the inventor believes that there are the following defects:

[0005] This will lead to a large waste of water and energy for driving the water to spray out, the water column has poor ornamental value, and it is difficult to suspend in the air, resulting in a relatively simple function of the fountain water show. Summary of the invention

[0006] In order to improve the problem that the performance functions of fountain water shows are relatively single, the present application provides a multifunctional water show fountain device.

[0007] The multifunctional water show fountain device provided in this application adopts the following technical solution:

[0008] A multifunctional water show fountain device comprises a plurality of water mist nozzles, each for forming water mist sprayed from bottom to top; a plurality of water flow nozzles, each for forming water flow sprayed from bottom to top; an irradiation component for forming an irradiation area; a wind mist rolling component for forming a plurality of axial wind outlets, a hurricane cavity connected to the plurality of outlets, and an exhaust port connected to the hurricane cavity; the plurality of outlets are distributed in a circular array around a fixed axis, and the plurality of outlets are opposite to the fixed axis; the exhaust port is used to discharge the air in the hurricane cavity from bottom to top to form an annular spiral wind area; wherein the water mist nozzle is located at the edge of the spiral wind area; the irradiation component is located in the middle of the spiral wind area; the irradiation area intersects with the spiral wind area.

[0009] By adopting the above technical solution, the water mist nozzle and the water flow nozzle are set together, so that the water mist can float in the air, and then the irradiation component irradiates the water mist to make the water mist beautiful. Compared with the traditional method of only forming a water column with water flow, the irradiation component irradiates the water mist and the water column at the same time, which will be more beautiful and more ornamental. In addition, the wind-powered mist component is used to output spiral wind outward and form a spiral wind area. The spiral wind will entrain the water mist, so that the water mist will move in a spiral trajectory. After the irradiation component is irradiated on the water mist, the water mist will appear as small droplets moving in the air, which is more beautiful to watch. The traditional water column requires a larger drive to enable the water flow to flow upward to form a water column, but the water column lasts for a short time and needs to provide kinetic energy for the water flow for a long time. Under the same volume of water, the water column will be smaller than the range of the water mist, so the water column is not as ornamental as the water mist. Therefore, using the water mist nozzle in the fountain show will make it more ornamental.

[0010] The illumination component is set in the middle of the spiral wind area, so the illumination component will be in the middle of the water mist moving in a spiral trajectory. The illumination component directly illuminates the water mist, which can make the light shine on the water mist better, so that when the water mist is viewed, the light shines from the inside to the outside. When only a water jet nozzle is used to generate a water column, the light shines on the water column from the outside of the water column. In some cases, you can see the light path formed by the light shining in the air. By setting the illumination component in the middle of the spiral wind area, it is achieved that the light shines from the inside to the outside when viewed from any angle, and it is difficult for the light to directly shine in the air that can be viewed to form a light path. This solution has a wider and more complete range of illumination, which greatly improves the viewing experience.

[0011] Water mist floats in the air and tends to drift outwards. Therefore, the spiral wind area is used to make the air flow speed in the spiral wind area greater than the air flow speed outside, so that the water mist can be sucked into the spiral wind area, reducing the situation of water mist drifting outwards, so that the water mist can be better gathered in one place, and under the action of the irradiation component, there is a denser water mist to improve the viewing experience. The water mist is carried by the spiral wind and floats in the air regularly, but as the height of the water mist gradually increases, the spiral wind will weaken, so that some of the water mist will fall, and after the water mist falls, it will be re-carried by the stronger part of the spiral wind, so that the water mist in the spiral wind area will be denser. The water mist floats in the air for a long time, which will cause the water mist to vaporize, and the vaporization of the water mist will absorb heat, so that the air in the spiral wind area can be cooled down, and then the air near the irradiation component will be cooled down, playing a role in cooling the irradiation component.

[0012] Optionally, the illumination assembly includes a plurality of illumination lamps and a driving member; the plurality of illumination lamps are used to form a plurality of light areas of different colors within the illumination area; the plurality of illumination lamps are distributed in a circular array around the fixed axis; and the driving member is used to drive the plurality of illumination lamps to rotate around the fixed axis.

[0013] By adopting the above-mentioned technical solution, the lighting lamp will rotate around a fixed axis, so that the water mist at each position in the spiral wind area can be evenly illuminated, thereby improving the uniformity of the color of the water mist. In addition, the colors of multiple lighting lamps can be different, and then the color changes will be uniformly produced on the water mist, further improving the viewing experience.

[0014] Optionally, the driving member is further used to drive the lighting lamp to rotate around a movable axis; the movable axis moves along a movable trajectory, and the movable trajectory is a circular trajectory with the fixed axis as the center.

[0015] By adopting the above technical solution, when the lighting lamp rotates around the movable axis, the distance between the lighting lamp and the water mist will be sometimes far and sometimes near, and the distance will switch frequently, thereby creating a combination of strong and dark color changes on the water mist, which is more beautiful to watch.

[0016] Optionally, the irradiation assembly also includes a carrier frame and a driving shaft; the driving shaft is rotatably connected to the carrier frame; the driving shaft is fixed to the multiple groups of lighting lamps; a first power supply core is arranged in the driving shaft; a second power supply core is arranged in the carrier frame, and the first power supply core is abutted against the second power supply core; the first power supply core is fixed to the driving shaft, and the second power supply core is fixed to the carrier frame.

[0017] By adopting the above technical solution and by arranging the first power supply core and the second power supply core to rotate relative to each other, it is achieved that the lighting lamp can be powered and rotated.

[0018] Optionally, a first accommodating chamber is formed in the driving shaft; an inserting portion for being inserted into the first accommodating chamber is formed in the supporting frame; a second accommodating chamber is opened in the inserting portion; the first power supply core is arranged in the first accommodating chamber, and the second power supply core is arranged in the second accommodating chamber; when the inserting portion is inserted into the first accommodating chamber, the position where the first power supply core and the second power supply core abut against each other is located in the second accommodating chamber; the second accommodating chamber is filled with fluorine liquid, and the fluorine liquid at least immerses the abutting position between the first power supply core and the second power supply core.

[0019] By adopting the above technical solution, the first power supply core and the second power supply core are in contact with each other and rotate with each other, so the first power supply core and the second power supply core will generate heat by friction, resulting in an increase in temperature. Therefore, the first power supply core and the second power supply core are set in the fluoride liquid, and the fluoride liquid is used to cool and dissipate the first power supply core and the second power supply core. At the same time, the non-conductive nature of the fluoride liquid will also make the first power supply core and the second power supply core safer. The plug is inserted into the first accommodating chamber, and the second accommodating chamber is formed in the plug. Then, when adding fluoride liquid, the fluoride liquid can be filled only in the second accommodating chamber, so that the fluoride liquid will not reach the junction of the first accommodating chamber and the second accommodating chamber, thereby improving the sealing of the fluoride liquid, and the position where the first power supply core and the second power supply core abut are located in the second accommodating chamber, thereby reducing the cost of sealing the first accommodating chamber and the second accommodating chamber, and also avoiding the leakage of fluoride liquid, and better improving the normal use of the first power supply core and the second power supply core.

[0020] Optionally, the wind-driven mist-rolling assembly includes: a plurality of axial flow fans for forming the air outlet; the plurality of axial flow fans are distributed in a circular array around the fixed axis; the spiral wind area includes an edge spiral area and a middle flow area; the plurality of axial flow fans are arranged below the supporting frame; so that the spiral wind area partially intersects with the area of ​​the lighting lamp; wherein the edge spiral area at least partially intersects with the area of ​​the lighting lamp.

[0021] By adopting the above technical solution, multiple axial flow fans blow against each other to generate spiral wind, and the spiral wind flows upward. If the axial flow fan is located below the support frame, then the axial flow fan is located below the lighting lamp, and the spiral wind will pass through the position of the lighting lamp when flowing upward, thereby increasing the air flow speed near the lighting lamp, increasing the air replacement speed near the lighting lamp, and improving the heat dissipation effect of the lighting lamp. In addition, since the second accommodating chamber is formed in the plug-in portion, and the plug-in portion is formed on the support frame, the air flow speed outside the second accommodating chamber is increased, which has the effect of cooling the fluorinated liquid in the second accommodating chamber to a certain extent, and better improves the effect of using the first power supply core and the second power supply core.

[0022] Optionally, the driving member is also used to drive the axial flow fan to move so that the axial flow fan can at least move to a first position and a second position; when the axial flow fan is located at the first position, the multiple axial flow fans blow air relative to each other, and the multiple axial flow fans are all opposite to the fixed axis; when the axial flow fan is located at the second position, the multiple axial flow fans all blow air upward along the direction of the fixed axis.

[0023] By adopting the above technical solution, multiple axial flow fans can form spiral winds, enveloping the water mist for floating, increasing the time the water mist floats in the air and the orderly floating of the water mist in the air, improving the viewing experience. At the same time, multiple axial flow fans blow upwards to form an upward axial flow wind, which can make the water mist flow only upwards, thus changing the water mist into another state, improving the diversity of viewing. If the water mist does not flow upwards in a spiral state, the water mist will easily diffuse to the surroundings, diffuse to the position of the water flow nozzle and diffuse above the lighting lamp, and then fall, fall near the water flow nozzle and fall on the lighting lamp. Falling on the lighting lamp can improve the heat dissipation effect of the lighting lamp. Falling at the position of the water flow nozzle will cause the water mist and the water column to alternate when the water flow nozzle sprays water outward, further improving the viewing experience.

[0024] Optionally, the wind-driven mist rolling assembly further includes: an air conveying member, which is used to form a conveying cavity; a plurality of the axial flow fans are all arranged in a groove; the groove is a pothole formed on the ground; and the conveying cavity is used to connect the axial flow fan with the external environment.

[0025] By adopting the above technical solution, air is transported through the transport cavity, so that the external air directly enters the groove and then flows out upward, avoiding the use of exhaust ports for both the air flowing out upward and the air flowing into the groove, thereby improving the effect of the air being output outward to form a spiral wind.

[0026] Optionally, the wind-driven mist-rolling assembly further includes a heating element and a cooling element; at least two conveying cavities are provided, and each of the conveying cavities is connected to a portion of the axial flow fans; the heating element is provided in one of the conveying cavities; and the cooling element is provided in another of the conveying cavities.

[0027] By adopting the above technical solution, cold air and hot air are blown outwards, and the cold air and hot air are alternately blown out, thereby increasing the flow state of the air and making the spiral wind better formed.

[0028] Optionally, a plurality of the water mist nozzles are used to form a water mist area; a plurality of the water flow nozzles are used to form a water column area; the water mist area wraps the spiral wind area; the water column area wraps the water mist area.

[0029] By adopting the above-mentioned technical solution, when the water mist floats to the water column area, the water column in the water column area will come into contact with the water mist, and then the water mist will melt into the water column and fall with the water column, thereby reducing the probability of the water mist floating outward to other places, thereby better playing the role of water recovery.

[0030] In summary, the present application includes at least one of the following beneficial technical effects:

[0031] 1. The use of water mist nozzles and water flow nozzles can spray water mist and water columns at the same time, which can improve the viewing experience. After the water mist is sprayed outward, it will float upward in a spiral form under the action of the spiral wind, so that the water mist will move in a spiral trajectory. After the irradiation component is irradiated on the water mist, the water mist will appear as small droplets moving in the air, which is more beautiful to watch.

[0032] 2. The irradiation component is located in the middle of the spiral wind, so the irradiation component irradiates from the middle of the water mist moving in a spiral trajectory to the outside, there are more best viewing positions and the viewing experience is stronger. BRIEF DESCRIPTION OF THE DRAWINGS

[0033] Figure 1 is an overall schematic diagram according to an embodiment of the present application;

[0034] Figure 2 It is a structural schematic diagram of a part of the embodiment, mainly showing the Figure 1 structure;

[0035] Figure 3 It is a structural diagram of a part of the embodiment, mainly showing Figure 2 The local schematic structure of

[0036] Figure 4 It is a structural schematic diagram of a part of the embodiment, mainly showing the structure of the lighting assembly, the carrier frame and some surrounding parts;

[0037] Figure 5 It is a structural schematic diagram of a part of the embodiment, mainly showing the Figure 4 structure;

[0038] Figure 6 It is a structural schematic diagram of a part of the embodiment, mainly showing the structure of the inserting part and some surrounding parts;

[0039] Figure 7 It is a structural schematic diagram of a part of the embodiment, mainly showing the structure of the first pulley, the second pulley and some surrounding parts;

[0040] Figure 8 It is a structural schematic diagram of a part of the embodiment, mainly showing the structure of the first transmission wheel, the second transmission wheel and some surrounding parts;

[0041] Fig. 9 It is a structural schematic diagram of a part of the embodiment, mainly showing the structure of a highlight lamp, an articulated lighting lamp and some surrounding parts;

[0042] Fig.10 It is a structural schematic diagram of a part of the embodiment, mainly showing the structure of the annular plate, the universal ball and some surrounding parts;

[0043] Fig.11 It is a structural schematic diagram of a part of the embodiment, mainly showing the structure of a hexagonal housing, an articulated lighting lamp, a large fan blade and some surrounding parts;

[0044] Fig.12 It is a structural schematic diagram of a part of the embodiment, mainly showing the structure of the wind-driven mist rolling assembly;

[0045] Fig.13 It is a structural diagram of a part of the embodiment, mainly showing Figure 1 The cross-sectional structure of

[0046] Fig.14 It is a structural schematic diagram of a part of the embodiment, mainly showing the Fig.13 structure;

[0047] Fig.15 It is a structural schematic diagram of a part of the embodiment, mainly showing the explosion structure of some parts when the DC wind area is formed;

[0048] Fig.16 It is a structural diagram of a part of the embodiment, mainly showing Figure 4 The cross-sectional structure of

[0049] Fig.17 yes Fig.16 A magnified view of middle;

[0050] Fig.18 It is a schematic diagram of the structure of a part of the embodiment, mainly showing a schematic diagram of a spiral wind area, an illumination area, a water mist area and a water column area.

[0051] Figure numerals: 1, irradiation assembly; 10, high-brightness lamp; 11, articulated lighting lamp; 111, universal ball; 12, driving member; 120, driving motor; 121, first pulley; 122, second pulley; 123, transmission belt; 124, first transmission wheel; 125, second transmission wheel; 126, first thrust bearing; 127, second thrust bearing; 128, connecting rod; 129, connecting bolt; 13, driving shaft; 131, first accommodating chamber; 132, first abutment portion; 14, first power supply core; 15, second power supply core; 16, elastic member; 161, spring; 162, fixed shell; 17, pushing structure; 18, annular plate; 19, irradiation area;

[0052] 2. Wind-driven mist rolling assembly; 21. Air inlet pipe; 22. Ring connecting pipe; 23. Air outlet pipe; 24. Axial flow fan; 25. Round pipe;

[0053] 3. Carrying frame; 31. Insertion portion; 311. Second accommodating chamber; 32. Second abutting portion; 33. Chassis; 34. Underframe; 35. Motor frame;

[0054] 4. Displacement drive components;

[0055] 5. Hexagonal shell;

[0056] 6. Water column area; 61. Water mist area; 63. Water flow nozzle; 64. Water mist nozzle;

[0057] 7. Spiral wind area; 71. DC wind area;

[0058] 8. Large fan blades;

[0059] 9. groove; 91. cover plate; 92. fixing bracket. DETAILED DESCRIPTION

[0060] The following is combined with Figure 1-18 This application is described in further detail.

[0061] Example 1

[0062] A multifunctional water show fountain device comprises a water mist nozzle 64, a water flow nozzle 63, an irradiation component 1 and a wind-driven mist rolling component 2.

[0063] A plurality of water mist nozzles 64 are provided, and the plurality of water mist nozzles 64 are used to form water mist sprayed from bottom to top. After the water mist is sprayed outward, it is scattered mist-like water droplets. A plurality of water flow nozzles 63 are provided, and the plurality of water flow nozzles 63 are used to form a water flow sprayed from bottom to top. The water flow is a water column sprayed outward. The irradiation component 1 is used to form an irradiation area 19. In this embodiment, the irradiation component 1 adopts a lighting lamp, and the lighting lamp irradiates divergent light outward. The light is formed from one point in a gradually diffuse manner, specifically, there is diffracted light, and the irradiation area 19 is the area through which the light passes. The common arrangement of the water mist nozzle 64 and the water flow nozzle 63 can realize that the water mist floats in the air, and then the irradiation component 1 irradiates on the water mist, making the water mist beautiful. Compared with the traditional method of only forming a water column with water flow, the irradiation component 1 irradiates the water mist and the water column at the same time, which will be more beautiful and more ornamental.

[0064] The wind-forced mist-rolling assembly 2 is used to form multiple axial wind outlets, hurricane cavities connected to the multiple outlets, and exhaust ports connected to the hurricane cavities. In this embodiment, the wind-forced mist-rolling assembly 2 includes a fixed box and an axial fan 24. Among them, the fixed box is used to form an air outlet, an exhaust port and a hurricane cavity, and the axial fan 24 is arranged on the air outlet, so that the axial fan 24 outputs the axial wind into the hurricane cavity. The multiple air outlets are distributed in a circular array around a fixed axis, and the multiple air outlets are opposite to the fixed axis, so the axial winds will collide with each other. In addition, the air outlet direction of the air outlet is perpendicular to the fixed axis, and the exhaust direction of the air outlet is parallel to the fixed axis, so a spiral wind will be formed that is discharged outward along the exhaust port. The exhaust port discharges the air in the hurricane cavity from bottom to top. The spiral wind is similar to the principle of a tornado. When it flows parallel to the fixed axis, it also carries a flow direction that rotates around the fixed axis. The spiral wind will form a ring-shaped spiral wind area 7. The wind-powered mist rolling component 2 is used to output spiral wind outwards and form a spiral wind area 7. The spiral wind will entrain the water mist, so that the water mist will move in a spiral trajectory. After the irradiation component 1 irradiates the water mist, the water mist will appear as small droplets moving in the air, which is more beautiful to watch. The water mist floats in the air and is easy to drift outwards. Then, by using the spiral wind area 7, the air flow speed in the spiral wind area 7 is made greater than the air flow speed outside, so that the water mist can be sucked into the spiral wind area 7, reducing the situation of the water mist drifting outwards, so that the water mist is better gathered in one place, and under the action of the irradiation component 1, there is a denser water mist to improve the viewing experience. The water mist is carried by the spiral wind and floats in the air regularly, but as the height of the water mist gradually increases, the spiral wind will weaken, so that part of the water mist will fall. After falling, the water mist will be carried by the stronger part of the spiral wind again, so that the water mist in the spiral wind area 7 will be more dense. The water mist floats in the air for a long time, which will cause the water mist to vaporize, and the vaporization of the water mist will absorb heat, thereby cooling the air in the spiral wind area 7, and then cooling the air near the irradiation component 1, thereby cooling the irradiation component 1.

[0065] Specifically, in this embodiment, the fixed box is arranged above the ground, so that the spiral wind is formed in the spiral wind area 7 above the ground. More specifically, the water mist nozzle 64 is located at the edge of the spiral wind area 7; the irradiation component 1 is located in the middle of the spiral wind area 7; and the irradiation area 19 intersects with the spiral wind area 7. The irradiation component 1 is arranged in the middle of the spiral wind area 7, and a bracket can be arranged on the exhaust port, and the irradiation component 1 is installed on the bracket. The irradiation component 1 is arranged in the middle of the spiral wind area 7, and then the irradiation component 1 will be in the middle of the water mist moving in a spiral trajectory, and the irradiation component 1 directly irradiates the water mist, so that the light can be better irradiated on the water mist, so that when the water mist is viewed, the light is irradiated from the inside to the outside. When the water flow nozzle 63 is used alone to generate a water column, the light is irradiated on the water column from the outside of the water column. In some cases, the light path formed by the light irradiating in the air can be seen, and the irradiation component 1 is arranged in the middle of the spiral wind area 7, so that at any angle, the light is irradiated from the inside to the outside, and it is difficult for the light to be directly irradiated in the air that can be viewed to form a light path. This solution has a wider and more complete illumination range, greatly improving the viewing experience.

[0066] In other embodiments, the wind mist assembly 2 includes: a plurality of axial flow fans 24 for forming an air outlet. The plurality of axial flow fans 24 are distributed in a circular array around a fixed axis; the spiral wind area 7 includes an edge spiral area and a middle flow area; the plurality of axial flow fans 24 are arranged below the lighting lamp; so that the spiral wind area 7 partially intersects with the lighting assembly; wherein the edge spiral area at least partially intersects with the lighting lamp. The plurality of axial flow fans 24 blow against each other to generate spiral wind, and the spiral wind flows upward. If the axial flow fans 24 are located below the lighting lamp, then the axial flow fans 24 are located below the lighting lamp, and when the spiral wind flows upward, it will pass through the position of the lighting wind, thereby increasing the air flow speed near the lighting lamp, increasing the air replacement speed near the lighting lamp, and improving the heat dissipation effect of the lighting lamp.

[0067] Example 2

[0068] The difference from Example 1 is that the illumination assembly 1 includes a plurality of illumination lamps and a driver 12. The plurality of illumination lamps are used to form a plurality of light areas of different colors in the illumination area 19. The plurality of illumination lamps are distributed in a circular array around a fixed axis, the driver 12 is mounted on a bracket, a lamp stand is provided at the output end of the driver 12, and the driver 12 is used to drive the plurality of illumination lamps to rotate around a fixed axis through the lamp stand. The illumination lamp is mounted on the lamp stand. By adopting the above-mentioned technical solution, the illumination lamp will rotate around a fixed axis, so that the water mist at each position in the spiral wind area 7 can be evenly illuminated, thereby improving the uniformity of the color on the water mist. In addition, the colors of the plurality of illumination lamps can also be different, and then the water mist will evenly produce color changes, further improving the ornamental effect.

[0069] Specifically, the driving member 12 adopts a driving motor 120, and the output shaft of the driving motor 120 coincides with the fixed axis, so that the driving motor 120 drives the multiple lighting lamps to rotate around the fixed axis.

[0070] Example 3

[0071] The difference from Example 2 is that, based on Example 2, the output end of the driving motor 120 repels the fixed axis, so the output end of the driving motor 120 and the position of the lamp holder away from the fixed axis are fixed, and when the driving motor 120 is started, the driving motor 120 drives the lamp holder to rotate eccentrically relative to the fixed axis. Thus, the distance between the lighting lamp and the water mist can be far and near at times, and the distance can be frequently switched, so that a combination of strong and dark color changes can be created on the water mist, which is more beautiful to watch.

[0072] Specifically, in another scheme, the driving member 12 is used to drive the lighting lamp to rotate around a movable axis. The movable axis moves along a movable trajectory, which is a circular trajectory with the fixed axis as the center. The output end of the driving motor 120 coincides with the fixed axis, the lamp holder is eccentrically connected to the output end of the driving motor 120, a connecting frame is set at the output end of the driving motor 120, the output end of the driving motor 120 is fixed to the connecting frame, the connecting frame is rotationally connected to the lamp holder, and the position where the connecting frame is rotationally connected to the lamp holder repels the fixed axis. Then the driving motor 120 drives the lamp holder to rotate eccentrically, and when the lamp holder rotates, due to its own inertia, the lamp holder rotates relative to the connecting frame, thereby realizing the rotation of the lighting lamp around a movable axis. Similarly, its purpose is to achieve that the distance between the lighting lamp and the water mist is sometimes far and sometimes near, and the distance will frequently switch between far and near, so as to create a combination of strong and dark color changes on the water mist, which is more beautiful to watch.

[0073] Example 4

[0074] The difference from Example 3 is that:

[0075] The irradiation assembly 1 includes a carrier frame 3 and a drive shaft 13. The drive shaft 13 is rotatably connected to the carrier frame 3, and the carrier frame 3 is fixed on the ground to support the drive shaft 13. The drive shaft 13 is fixed to a plurality of groups of illuminating lamps. Preferably, the drive shaft 13 is fixed to the illuminating lamps through a lamp holder, and the lamp holder is used to install the illuminating lamps, and the lamp holder is installed on the drive shaft 13. The drive motor 120 drives the drive shaft to rotate, and the drive shaft drives the lamp holder and the illuminating lamp to rotate.

[0076] Among them, a first power supply core 14 is arranged in the driving shaft 13; and a second power supply core 15 is arranged in the supporting frame 3. In this embodiment, the first power supply core 14 is fixed to the driving shaft 13, and the first power supply core 14 is fixed below the driving shaft. The second power supply core 15 is fixed to the supporting frame 3, and the first power supply core 14 abuts against the second power supply core 15. Among them, the first power supply core 14 is connected to the lighting lamp through corresponding wires and supplies power to the lighting lamp. The second power supply core 15 is externally connected to a power supply device, so that the lighting lamp is powered by the second power supply core 15 and the first power supply core 14. Among them, by setting the first power supply core 14 and the second power supply core 15 to rotate with each other, it is achieved that the lighting lamp can be powered and rotated.

[0077] Example 5

[0078] The difference from Example 4 is:

[0079] A first accommodating chamber 131 is formed in the driving shaft 13. An inserting portion 31 for inserting into the first accommodating chamber 131 is formed in the carrier 3. A second accommodating chamber 311 is provided in the inserting portion 31. The first power supply core 14 is arranged in the first accommodating chamber 131, and the second power supply core 15 is arranged in the second accommodating chamber 311. By arranging the first power supply core 14 and the second power supply core 15 in the first accommodating chamber 131 and the second accommodating chamber 311, the first power supply core 14 and the second power supply core 15 can be better protected to avoid short circuits and improve safety during operation.

[0080] In addition, when the plug 31 is inserted into the first accommodating chamber 131, the position where the first power supply core 14 and the second power supply core 15 abut is located in the second accommodating chamber 311. The second accommodating chamber 311 is filled with fluoride liquid, and the fluoride liquid at least immerses the abutment position of the first power supply core 14 and the second power supply core 15. Then the first power supply core 14 and the second power supply core 15 can be immersed in the fluoride liquid, so the first power supply core 14 and the second power supply core 15 will generate heat by friction, and the fluoride liquid will be used to cool down and dissipate the first power supply core 14 and the second power supply core 15. At the same time, the non-conductive nature of the fluoride liquid will also make the first power supply core 14 and the second power supply core 15 safer. After the insert 31 is inserted into the first accommodating chamber 131, the end of the insert 31 contacts the top surface of the first accommodating chamber 131, so that the first accommodating chamber 131 is located outside the second accommodating chamber 311, and after the fluoride liquid is filled into the second accommodating chamber 311, the amount of the fluoride liquid is controlled so that the fluoride liquid does not reach the position where the first accommodating chamber 131 and the second accommodating chamber 311 are connected, thereby avoiding leakage of the fluoride liquid. Then, when adding the fluoride liquid, the fluoride liquid can be filled only in the second accommodating chamber 311, so that the fluoride liquid does not reach the connection between the first accommodating chamber 131 and the second accommodating chamber 311, thereby improving the sealing of the fluoride liquid, and the position where the first power supply core 14 and the second power supply core 15 abut against each other is located in the second accommodating chamber 311, thereby reducing the cost of sealing the first accommodating chamber 131 and the second accommodating chamber 311, while also avoiding leakage of the fluoride liquid, thereby better improving the normal use of the first power supply core 14 and the second power supply core 15.

[0081] Specifically, an elastic member 16 is provided on the first power supply core 14, and the elastic member 16 is used to apply a downward elastic force to the first power supply core 14, so that the first power supply core 14 will apply a force downward to the second power supply core 15, so that the first power supply core 14 and the second power supply core 15 are tightly abutted together. In this way, the electrical connection between the first power supply core 14 and the second power supply core 15 can be better guaranteed to avoid poor power supply.

[0082] More specifically, the elastic member 16 includes: a spring 161 and a fixed shell 162. The fixed shell 162 is inserted into the first power supply core 14, and a protrusion is formed on the end of the first power supply core 14, and the protrusion is used to abut against the fixed shell 162, so that the fixed shell 162 is inserted into the first power supply core 14 from top to bottom and abuts against the protrusion, and the fixed shell 162 cannot continue to move downward. One end of the spring 161 abuts against the top surface of the first accommodating chamber 131, and the other end abuts against the fixed shell 162, thereby applying a downward force to the first power supply core 14, so that the first power supply core 14 and the second power supply core 15 are pressed tightly. In addition, the fixed shell can be slidably connected to the inner wall surface of the second accommodating chamber 311, so that the first power supply core 14 can abut against the second power supply core 15 more stably.

[0083] In addition, the spiral wind will increase the air flow speed outside the second accommodating chamber 311, which will cool the fluorinated liquid in the second accommodating chamber 311 to a certain extent, thereby better improving the use effect of the first power supply core 14 and the second power supply core 15.

[0084] Example 6

[0085] The difference from the embodiment 5 is that: a displacement driving component 4 is arranged on the carrier 3, and a plurality of displacement driving components 4 are arranged, and a ring plate 18 is arranged on the plurality of displacement driving components 4, and the plurality of displacement driving components 4 are used to drive the ring plate 18 to move up and down. In this embodiment, the lighting lamp is an articulated lighting lamp 11, and the articulated lighting lamp 11 refers to a lighting lamp with a hinged connecting part on the lampshade. A hexagonal shell 5 is arranged on the carrier 3, and the hexagonal shell 5 is used to replace the lamp holder. The outer surface of the hexagonal shell 5 is used to install the articulated lighting lamp 11, so that the articulated lighting lamp 11 can rotate relative to the hexagonal shell 5. To be precise, the hexagonal shell 5 is fixed on the driving shaft 13, so that the driving shaft 13 drives the articulated lighting lamp to rotate around the fixed axis through the hexagonal shell 5. The articulated lighting lamp 11 is inserted into the interior of the hexagonal shell 5 through the cable, and is inserted into the driving shaft 13, and is electrically connected to the first power supply core 14 and the second power supply core 15. The displacement driving component 4 adopts an electric push rod.

[0086] A universal ball 111 is provided at the lower part of the articulated lighting lamp 11, and the annular plate 18 is used to support the universal ball 111. The displacement driving component 4 drives the annular plate 18 to move up and down to make the articulated lighting lamp 11 rotate relative to the hexagonal shell 5, so that the illumination angle of the articulated lighting lamp 11 can be adjusted.

[0087] What can be achieved is that the position of the lighting on the water mist changes from bottom to top, or from top to bottom, so as to better create a visual perception with strong ornamental effect.

[0088] More specifically, a plurality of articulated lighting lamps 11 are arranged on the outer surface of the hexagonal shell, and the upper end surface of the hexagonal shell 5 is vacant. A highlight lamp 10 can be arranged on the upper end surface of the hexagonal shell 5, and the highlight lamp mainly irradiates upward. In some cases, when the water mist nozzle 64 stops and the spiral wind stops outputting, the highlight lamp 10 can illuminate the water mist above, thereby providing an appreciation of the ending scene of the water mist slowly falling.

[0089] In other embodiments, the highlight lamp 10 is replaced with a plurality of small blades and a mounting shaft, the mounting shaft is fixed to the upper end surface of the hexagonal housing 5, the small blades are fixed to the mounting shaft, and the small blades are separated from the upper end surface of the rheological housing. When the drive shaft 13 rotates, the mounting shaft and the small blades rotate through the hexagonal housing 5, and the small blades output wind, which can prevent water mist from falling on the upper end surface of the hexagonal housing 5, thereby preventing the water mist from condensing into water and infiltrating into the hinged parts of the lighting lamp or entering other driving parts.

[0090] In some other embodiments, a plurality of illuminators are arranged at intervals, and large blades 8 are arranged at the corners of the hexagonal housing 5, where the corners of the hexagonal housing 5 refer to the vertices of the hexagon. The large blades 8 are located between any two articulated illuminators 11, and when the hexagonal housing 5 rotates, the large blades 8 rotate, generating upward wind near the illuminators, thereby preventing water mist from falling on the articulated illuminators 11, and preventing the water mist from affecting the illumination effect of the articulated illuminators 11.

[0091] Example 7

[0092] The difference from Example 6 is that the driving member 12 also includes: a first pulley 121, a second pulley 122, a transmission belt 123, a first transmission wheel 124, a second transmission wheel 125 and a connecting structure. It also includes: a first thrust bearing 126 and a second thrust bearing 127. The end of the driving shaft 13 away from the hexagonal housing 5 forms a first abutment portion 132, the edge of the insertion portion 31 forms a second abutment portion 32, and the first thrust bearing 126 is arranged between the first abutment portion 132 and the second abutment portion 32, so that the first abutment portion 132 abuts against the second abutment portion 32, so that the bearing frame 3 provides axial support to the driving shaft 13 through the second abutment portion 32. The insertion portion 31 formed by the bearing frame 3 is inserted into the first accommodating chamber 131 formed by the driving shaft 13, thereby providing radial support force to the driving shaft 13. The second thrust bearing 127 is arranged at the end of the second abutment portion 32 away from the first abutment portion 132. The first transmission wheel 124 is fixed to the drive shaft 13, the first transmission wheel 124 is in contact with the first abutment portion 132, and the second transmission wheel 125 is in contact with the second thrust bearing 127. Then the connection structure is used to fix the first transmission wheel 124 and the second transmission wheel 125. Then the first transmission wheel 124 and the second transmission wheel 125 will press the first abutment portion 132 and the second abutment portion 32, so that the first abutment portion 132 cannot be separated relative to the second abutment portion 32, and the relative rotation between the drive shaft 13 and the insertion portion 31 can also be achieved. The first pulley 121 is connected to the output end of the drive motor 120, the second pulley 122 is connected to the second transmission wheel 125, and the transmission belt 123 is wound around the first pulley 121 and the second pulley 122. The transmission belt 123 is a V-belt, and a plurality of V-grooves for accommodating the V-belt are formed on the first pulley 121 and the second pulley 122.

[0093] Among them, the connecting structure includes: a connecting rod 128 and a connecting bolt 129, the connecting rod 128 is fixed to the first transmission wheel 124, a through hole is opened on the second transmission wheel 125, the connecting bolt 129 passes through the through hole, and the connecting bolt 129 is threadedly connected to the first transmission rod, thereby fixing the first transmission wheel 124 and the second transmission wheel 125 together.

[0094] More specifically, the carrier 3 includes: a chassis 33, a base frame 34 and a motor frame 35, both of which are mounted on the chassis 33, the chassis 34 is used to form the insertion portion 31, and the motor frame 35 is used to install the drive motor 120. The chassis 33 is used to be set on the ground or in a groove 9. The insertion portion 31 is a rod body.

[0095] Among them, the setting of the first transmission wheel 124 and the second transmission wheel 125 is not only used to clamp the first abutment portion 132 and the second abutment portion 32, but also used to adjust the position of the V-belt, so that the V-belt is in a relatively lower position, so that the annular plate 18 has a larger displacement space when moving downward, thereby making the overall structure more compact and saving space.

[0096] Example 8

[0097] The difference from the above embodiment is that the driving member 12 is also used to drive the axial flow fan 24 to move, so that the axial flow fan 24 can at least move to the first position and the second position. When the axial flow fan 24 is in the first position, the multiple axial flow fans 24 blow air relative to each other, and the multiple axial flow fans 24 are all relative to the fixed axis; when the axial flow fan 24 is in the second position, the multiple axial flow fans 24 blow air upward along the direction of the fixed axis. In the first position, the multiple axial flow fans 24 output axial flow wind towards the fixed axis, and the second position is the multiple axial flow fans 24 output wind vertically upward. The multiple axial flow fans 24 can form spiral wind, enveloping the water mist to float, increasing the time for the water mist to float in the air and the orderly floating of the water mist in the air, improving the viewing experience, and at the same time, the multiple axial flow fans 24 blow air upward, thereby forming an upward direct current wind area 71, which is the area where the direct current wind passes, so that the water mist can only flow upward, so that the water mist changes into another state, improving the diversity of viewing.

[0098] The wind-driven misting assembly 2 further includes: an air conveying member, which is used to form a conveying cavity; a plurality of axial flow fans 24 are all arranged in a groove 9; the groove 9 is a pit formed on the ground; and the conveying cavity is used to connect the axial flow fans 24 with the external environment. In this embodiment, the air conveying member adopts a conveying pipe, which is partially located in the groove 9 and partially located outside the groove 9. The axial flow fans 24 are used to make air flow in the conveying pipe and discharge it outward at the position of the axial flow fans 24.

[0099] The delivery pipe includes two air inlet pipes 21, an annular connecting pipe 22 and multiple air outlet pipes 23. An axial flow fan is arranged at the end of the air outlet pipe 23. The annular connecting pipe 22 is used to communicate with multiple air outlet pipes 23. The two air inlet pipes 21 are connected with the annular connecting pipe 22. The two air inlet pipes 21 are located outside the groove 9, preferably above the ground. The air is transported through the delivery cavity, so that the external air directly enters the groove 9 and then flows out upward, avoiding the air flowing out upward and the air flowing into the groove 9 using the exhaust port. The effect of the air output to form a spiral wind is improved.

[0100] Specifically, the driving member 12 includes a pushing structure 17, and the pushing structure 17 is used to push the axial flow fan 24 to move. The axial flow fan 24 is arranged in a circular tube 25, and the circular tube 25 is fixed to the air outlet pipe 23. The air outlet pipe 23 is a flexible pipe body. A fixing frame 92 is arranged on the air outlet pipe 23, and the fixing frame 92 fixes the middle part of the air outlet pipe 23. Then, the pushing structure 17 pushes the end of the circular tube 25 upward, so that the circular tube 25 can blow upward, and the pushing structure 17 pushes the end of the circular tube 25 downward, so that the circular tube 25 can blow horizontally. The pushing structure 17 adopts an electric push rod. In other schemes, a rotating motor can also be used to drive the rotation of the circular tube 25 to realize the upward or horizontal blowing of the circular tube 25. Among them, the circular tube 25 and the air outlet pipe 23 are connected together by a hinge, so that the circular tube 25 and the air outlet pipe 23 are rotatably connected, so that the circular tube 25 can blow air vertically upward. The hinge is a hinge plate adopting the existing technology.

[0101] In other embodiments, the wind-driven mist rolling assembly 2 also includes a heating element and a cooling element. At least two conveying cavities are provided, each of which is connected to a part of the axial flow fan 24; the heating element is provided in one of the conveying cavities; and the cooling element is provided in another conveying cavity. Preferably, the annular connecting pipe 22 is composed of two arc tubes, one of which is connected to an air inlet pipe 21 and to a part of the air outlet pipe 23, and the other arc tube is connected to another air inlet pipe 21 and to another part of the air outlet pipe 23. Among them, the heating element adopts a heating tube, which is a prior art and will not be elaborated in detail. The cooling element adopts a cooling element, which adopts the prior art and will not be elaborated. The heating element heats the air in one of the arc tubes, and the condensing element cools the air in another arc tube, so that cold air and hot air are output outward in multiple air outlet pipes 23, and the cold air and hot air are alternated, thereby increasing the flow state of the air and making the spiral wind better formed.

[0102] In other embodiments, a plurality of water mist nozzles 64 are used to form a water mist area 61; a plurality of water flow nozzles 63 are used to form a water column area 6; the water mist area 61 wraps the spiral wind area 7; and the water column area 6 wraps the water mist area 61. Among them, the water flow nozzles 63 and the water mist nozzles 64 are both based on existing technologies and will not be described in detail. When the water mist floats to the water column area 6, the water column in the water column area 6 will contact the water mist, and then the water mist will melt into the water column and fall with the water column, thereby reducing the probability of the water mist floating outward to other places, so that the water can be better recycled.

[0103] More specifically, the axial flow fan 24 is located outside the lighting lamp and inside the water mist area 61, so that wind is ejected inside the water mist area 61 and outside the lighting lamp.

[0104] The implementation principle of one of the multifunctional water show fountain devices in the present application embodiment is:

[0105] A groove 9 is dug on the ground, a cover plate 91 is arranged above the groove 9, and legs are also arranged in the groove 9 to support the cover plate 91. A plurality of through grooves are provided on the cover plate 91 to allow the light of the lighting lamp to irradiate out, output the spiral wind outward, and install the water mist nozzle 64 and the water flow nozzle 63.

[0106] Specifically, the bottom plate 33 is placed at the bottom of the groove 9, and the bottom plate 33 is a hollow plate. The fixing frame 92 is used to fix the air outlet pipe 23 and the cover plate 91. The pushing structure 17 is installed at the bottom of the groove 9. The axial flow fan 24 is installed above the lighting lamp.

[0107] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A multifunctional water show fountain device, characterized in that: include A plurality of water mist nozzles are provided, each of which is used to form water mist sprayed from bottom to top; A plurality of water flow nozzles are provided, each of which is used to form a water flow sprayed from bottom to top; An irradiation component, used to form an irradiation area; A wind-driven mist rolling assembly, used to form a plurality of axial wind outlets, a hurricane cavity connected to the plurality of outlets, and an exhaust port connected to the hurricane cavity; The plurality of air outlets are distributed in a circular array around a fixed axis, and the plurality of air outlets are opposite to the fixed axis; the air outlet is used to discharge the air in the hurricane cavity from bottom to top to form an annular spiral wind area; Wherein, the water mist nozzle is located at the edge of the spiral wind area; the irradiation component is located in the middle of the spiral wind area; and the irradiation area intersects with the spiral wind area.

2. The multifunctional water show fountain device according to claim 1, characterized in that: The irradiation assembly includes a plurality of illuminators and a driving member; the plurality of illuminators are used to form a plurality of light areas with different colors in the irradiation area; The plurality of lighting lamps are distributed in a circular array around the fixed axis; the driving member is used to drive the plurality of lighting lamps to rotate around the fixed axis.

3. The multifunctional water show fountain device according to claim 2 is characterized in that: The driving member is also used to drive the lighting lamp to rotate around a movable axis; The movable axis moves along a movable trajectory, and the movable trajectory is a circular trajectory with the fixed axis as the center.

4. The multifunctional water show fountain device according to claim 2 or 3, characterized in that: The irradiation assembly further comprises a carrier and a drive shaft; the drive shaft is rotatably connected to the carrier; The driving shaft is fixed to the multiple groups of lighting lamps; a first power supply core is arranged in the driving shaft; a second power supply core is arranged in the supporting frame, and the first power supply core is abutted against the second power supply core; the first power supply core is fixed to the driving shaft, and the second power supply core is fixed to the supporting frame.

5. The multifunctional water show fountain device according to claim 4 is characterized in that: A first accommodating chamber is formed in the driving shaft; an inserting portion for inserting into the first accommodating chamber is formed in the supporting frame; and a second accommodating chamber is formed in the inserting portion; The first power supply core is arranged in the first accommodating chamber, and the second power supply core is arranged in the second accommodating chamber; When the inserting portion is inserted into the first accommodating chamber, the position where the first power supply core and the second power supply core abut against each other is located in the second accommodating chamber; The second accommodating chamber is filled with fluorine liquid, and the fluorine liquid at least immerses the abutting position of the first power supply core and the second power supply core.

6. The multifunctional water show fountain device according to claim 4 is characterized in that: The wind-driven mist rolling assembly comprises: a plurality of axial flow fans for forming the air outlet; the plurality of axial flow fans are distributed in a circular array around the fixed axis; The spiral wind area includes a side spiral area and a middle flow area; The plurality of axial flow fans are arranged below the carrier frame so that the spiral wind area partially intersects with the area of ​​the lighting lamp; Wherein, the edge spiral area at least partially intersects with the area of ​​the lighting lamp.

7. The multifunctional water show fountain device according to claim 6, characterized in that: The driving member is further used to drive the axial flow fan to move, so that the axial flow fan can at least move to a first position and a second position; When the axial flow fans are located at the first position, the plurality of axial flow fans blow air relative to each other, and the plurality of axial flow fans are all relative to the fixed axis; When the axial flow fans are located at the second position, the plurality of axial flow fans blow air upward along the direction of the fixed axis.

8. The multifunctional water show fountain device according to claim 6 is characterized in that: The wind-driven mist rolling assembly further comprises: an air conveying member, the air conveying member is used to form a conveying cavity; the plurality of axial flow fans are all arranged in a groove; the groove is a pit formed on the ground; The delivery cavity is used to connect the axial flow fan with the external environment.

9. The multifunctional water show fountain device according to claim 8, characterized in that: The wind-driven mist rolling assembly also includes a heating element and a cooling element; At least two conveying cavities are provided, and each conveying cavity is communicated with part of the axial flow fans; The heating element is arranged in one of the conveying cavities; the cooling element is arranged in the other conveying cavity.

10. The multifunctional water show fountain device according to claim 1, characterized in that: A plurality of the water mist nozzles are used to form a water mist area; a plurality of the water flow nozzles are used to form a water column area; The water mist area wraps the spiral wind area; the water column area wraps the water mist area.

Images