A multifunctional device for garden landscape

Abstract

The application belongs to the technical field of garden design, and discloses a multifunctional device for garden landscape, which comprises a base, a rotating cylinder rotatably arranged on the base, a lighting mechanism, a fountain mechanism and a mosquito trap. The lighting mechanism comprises a lampshade and a lighting lamp arranged in the lampshade. The lighting lamp is in communication with a power supply. The lampshade is fixedly arranged on the top of the rotating cylinder. The fountain mechanism comprises a booster shell and a plurality of water pipes. The booster shell is fixedly arranged on the top of the rotating cylinder and in communication with a water source. The water pipes are fixedly connected to the booster shell and in communication with the inner cavity of the booster shell. The mosquito trap is arranged in the rotating cylinder. A side wall of the top end of the rotating cylinder is provided with a mosquito passing port. The top opening of the mosquito trap is in communication with the mosquito passing port. The multifunctional device for garden landscape can solve the problems of low function integration and low energy utilization efficiency.

Description

Technical Field

[0001] This invention belongs to the field of landscape design technology, and specifically relates to a multifunctional device for landscape design. Background Technology

[0002] The landscaped area features gently undulating terrain, creating a picturesque scene. It includes a lakeside viewing area, a circular fitness trail, a flower sea area, a forest conservation area, a sports area, a cultural corridor, and a wetland science education area. The plant selection utilizes native trees, paired with cherry blossoms, crabapple trees, osmanthus, and red maples to create a layered landscape throughout the four seasons. Rotating flower fields achieve seasonal changes: tulips in spring, crape myrtle in summer, golden osmanthus in autumn, and red plum blossoms in winter. The water system integrates ecological floating islands, cascading streams, and waterfront platforms. The park also features covered bridges, viewing pavilions, cultural sculptures, and science display boards, along with a children's sandpit, a senior citizens' fitness plaza, and a lakeside running track, catering to the recreational needs of all ages.

[0003] In these functional areas, lighting is an indispensable component of landscape design. It not only serves the function of illumination but also beautifies the environment and creates atmosphere. Currently, landscape systems have made some progress in functional integration; for example, some landscape lights now integrate functions such as misting, fountains, or insect trapping.

[0004] However, existing landscape systems still have the following shortcomings: when landscape lighting is in operation, the light easily attracts a large number of mosquitoes to gather around the lights; mosquitoes not only affect the aesthetic effect of the landscape lighting, but also bother pedestrians and even spread diseases. Although some landscape lights have integrated insect-killing functions, such as electric mosquito nets and insect-attracting lamps, these insect-killing devices usually require independent power supplies, increasing the system's energy consumption and cost. In existing landscape lights that integrate fountains and insect-killing functions, the fountain and insect-killing functions usually use separate power sources. For example, the fountain is driven by a water pump, and the insect-killing device is powered by a separate motor or power grid, resulting in complex equipment structures, large size, and high energy consumption, which is not conducive to energy conservation and environmental protection.

[0005] Therefore, developing a multifunctional garden landscape device that can organically integrate lighting, fountains, and mosquito trapping functions has significant practical importance and application value. Summary of the Invention

[0006] The purpose of this invention is to provide a multifunctional garden landscape device that addresses the problems of low functional integration and low energy efficiency in existing multifunctional garden landscape devices.

[0007] To achieve the above-mentioned technical objectives, the technical solution adopted by the present invention is as follows:

[0008] A multifunctional garden landscape device, comprising:

[0009] A base, which is fixedly installed on the target ground, and a rotating cylinder is rotatably installed on the base;

[0010] A lighting mechanism, comprising a lampshade and a lighting lamp disposed within the lampshade, the lighting lamp being connected to a power source, and the lampshade being fixedly mounted on the top of a rotating cylinder;

[0011] A fountain mechanism, comprising a pressurizing shell and several water spray pipes, wherein the pressurizing shell is fixedly installed on the top of a rotating cylinder and connected to a water source, and the several water spray pipes are fixedly connected to the pressurizing shell and connected to the inner cavity of the pressurizing shell;

[0012] A mosquito trap, wherein the mosquito trap is disposed inside a rotating cylinder, and a mosquito passage opening is provided on one side wall at the top of the rotating cylinder, and the top opening of the mosquito trap is connected to the mosquito passage opening;

[0013] A power sharing mechanism located inside the rotating cylinder is connected to the fountain mechanism and is used to transmit the water flow power of the fountain mechanism to the mosquito trap.

[0014] In this invention, the base serves as the supporting foundation for the entire device, and the rotating cylinder can rotate freely relative to the base around a vertical axis, enabling the rotating display of the fountain mechanism; the lighting provides illumination; the water from the water source flows through the pressurization shell and is sprayed out from the spray pipe, forming a fountain water feature. Mosquitoes enter the mosquito trap through their mouths and are collected and killed; the device has rich overall functions and a high degree of integration; the power sharing mechanism realizes the function of one power source with multiple outputs, that is, it uses the water flow power in the fountain mechanism to simultaneously drive the fountain spray and the mosquito trap, eliminating the need for a separate power source for the mosquito trap.

[0015] Furthermore, the fountain mechanism also includes a turbine chamber, a piston cylinder, a rotating shaft, a gear transmission assembly, and an intermittent transmission assembly;

[0016] A fourth valve is installed at the bottom of the turbine chamber, and the fourth valve is connected to a connecting pipe. The connecting pipe is connected to a fixed shaft cylinder fixed on the base, and the connecting pipe and the fixed shaft cylinder can rotate relative to each other. The fixed shaft cylinder is connected to a water source. A third valve is installed at the top of the turbine chamber, and the third valve is connected to the pressurization shell. Water supplied by the water source enters the connecting pipe from the fixed shaft cylinder, enters the turbine chamber through the fourth valve, impacts the turbine inside the turbine chamber to make it rotate, and then enters the pressurization shell through the third valve, and finally is sprayed out from the water spray pipe.

[0017] The piston cylinder is fixedly mounted on the pressurizing shell. A first one-way valve is installed at the air inlet of the piston cylinder, which is connected to the bottom of the mosquito trap. A second one-way valve is installed at the air outlet of the piston cylinder, which is connected to the pressurizing shell. A piston rod is installed inside the piston cylinder. When the piston rod reciprocates inside the piston cylinder, it draws air from the bottom of the mosquito trap through the first one-way valve, creating a negative pressure inside the mosquito trap and drawing in mosquitoes. The drawn-in air is discharged into the pressurizing shell through the second one-way valve and sprayed out from the spray pipe along with the water flow.

[0018] The rotating shaft is rotatably mounted inside the turbine cavity, and a turbine is fixedly mounted on the rotating shaft. The turbine is located inside the turbine cavity. One end of the rotating shaft extends out of the turbine cavity and is connected to the power input end of the gear transmission assembly. The power output end of the gear transmission assembly is connected to the fixed shaft cylinder. The other end of the rotating shaft extends out of the turbine cavity and is connected to the power input end of the intermittent transmission assembly. The power output end of the intermittent transmission assembly is connected to the piston rod.

[0019] The water flow from the water source drives the turbine to rotate, and part of the power generated by this water flow is transmitted to the fixed shaft cylinder through a gear transmission assembly. This drives the rotating cylinder, lighting mechanism, and fountain mechanism to rotate relative to the base. Since the fixed shaft cylinder is fixed to the base and the gear transmission assembly is installed inside the rotating cylinder, the relative motion between the gear transmission assembly and the fixed shaft cylinder drives the rotating cylinder to rotate as a whole, thereby causing the lighting mechanism and fountain mechanism to rotate relative to the base. The other part is transmitted to the piston rod through an intermittent transmission assembly, so that the piston rod cooperates with the piston cylinder to pressurize the water flow in the pressurization shell. That is, the intermittent transmission assembly drives the piston rod to reciprocate, thereby pressurizing the water flow in the pressurization shell and sucking up the mosquito trap.

[0020] Furthermore, the gear transmission assembly includes a vertical plate, a driving wheel, a driven wheel, a synchronous bevel gear, and a fixed bevel gear. The vertical plate is fixedly installed inside the rotating cylinder. The driving wheel is fixedly installed on the rotating shaft. The driven wheel is rotatably installed on the vertical plate and is connected to the driving wheel. The synchronous bevel gear is coaxially installed with the driven wheel and meshes with the fixed bevel gear. The fixed bevel gear is fixedly installed on the fixed shaft cylinder. The driving wheel and the driven wheel can be connected by gear meshing or belt connection. The rotating shaft drives the driving wheel to rotate, the driving wheel drives the driven wheel to rotate, and the driven wheel drives the synchronous bevel gear coaxially installed with it to rotate. The synchronous bevel gear meshes with the stationary fixed bevel gear, generating relative motion, thereby driving the rotating cylinder and all components mounted on it to rotate as a whole.

[0021] Furthermore, the mosquito trap includes a trapping cylinder and a crushing cylinder fixed inside a rotating cylinder. The crushing cylinder is located at the bottom end of the trapping cylinder, and a crushing shaft is provided inside the crushing cylinder. The crushing shaft is equipped with crushing teeth. Mosquitoes attracted by inhalation or insect attractants fall into the crushing cylinder through the trapping cylinder, where the rotating crushing shaft drives the crushing teeth to crush and kill the mosquitoes.

[0022] Furthermore, the power-sharing mechanism includes a fixed rod, a gear integrated plate, a secondary bevel gear, a first gear, and a second gear. The gear integrated plate is fixedly mounted on the bottom end of the pulverizing cylinder via the fixed rod. The secondary bevel gear is rotatably mounted on the gear integrated plate and meshes with the fixed bevel gear. The bottom end of the pulverizing shaft extends out of the pulverizing cylinder and is equipped with the first gear. The first gear meshes with the second gear, and the second gear is coaxially mounted with the secondary bevel gear. The fixed bevel gear remains stationary, while the secondary bevel gear rotates with the rotating cylinder and meshes with the fixed bevel gear. The secondary bevel gear drives the first gear to rotate via the coaxially mounted second gear, and the first gear drives the pulverizing shaft to rotate, thereby realizing the insect-killing function of the rotating pulverizing teeth. This structure cleverly converts the rotational motion of the rotating cylinder into the rotational power of the pulverizing shaft, eliminating the need for a separate drive source for the pulverizing shaft.

[0023] Furthermore, at least two funnels are vertically spaced within the trapping tube, and a lure is detachably installed inside. The funnel at the lowest end of the trapping tube, together with the side and bottom walls, forms a negative pressure chamber, which is connected to a first one-way valve. A negative pressure hole is provided on the negative pressure chamber, communicating with the funnel. The lure emits an odor that attracts mosquitoes into the trapping tube. The mosquitoes fall through the funnels in stages, eventually entering the corresponding funnel area in the negative pressure chamber, and then falling into the pulverizing tube. The multiple funnels effectively prevent mosquitoes from escaping. In addition, the negative pressure generated by the negative pressure chamber also helps to suck in mosquitoes and prevent them from escaping. The diameter of the negative pressure hole can be flexibly set according to actual needs, preventing mosquitoes from passing through.

[0024] Furthermore, the intermittent transmission assembly includes a first connecting rod, a second connecting rod, and a hinge block. One end of the first connecting rod is fixedly sleeved on the rotating shaft, and the free end of the first connecting rod is hinged to the second connecting rod. The free end of the second connecting rod is hinged to the hinge block, and the hinge block is rotatably mounted on the bottom end of the piston rod. The rotation of the rotating shaft drives the first connecting rod to rotate, and the first connecting rod drives the piston rod to reciprocate within the piston cylinder through the second connecting rod and the hinge block, thereby achieving intermittent suction and pressurization.

[0025] Furthermore, the base is equipped with a waterproof connector, a conductive slip ring, and a sandwich layer. A wiring branch pipe is installed inside the rotating cylinder, and a wiring pipe is installed on the pressurizing shell. A conduit interface is located inside the pressurizing shell, and the wiring pipe connects to the top of the wiring branch pipe via the conduit interface. The waterproof connector is connected to a power source. A connecting line is installed within the sandwich layer. The conductive slip ring is located on the inner wall of the base, and the connecting line connects the waterproof connector and the conductive slip ring. A conductive connector is inserted into the bottom of the wiring branch pipe. The conductive connector has a conductive head, which is slidably connected to and electrically connected to the conductive slip ring. A cable is installed inside the wiring branch pipe and the wiring pipe, and the cable electrically connects the conductive connector to the lighting lamp. This ensures that the lighting lamp receives a stable power supply while the rotating cylinder continues to rotate. The sliding engagement of the conductive slip ring and the conductive head achieves a dynamic-to-static electrical connection, avoiding the problem of wire tangling.

[0026] Furthermore, the lighting mechanism also includes a light strip disposed within a rotating cylinder. The light strip is electrically connected to a branch cable, which is electrically connected to a cable within a connecting conduit. The light strip can emit light of a specific wavelength, enhancing both the lighting and decorative effects, and attracting mosquitoes to their mouths, thus improving trapping efficiency.

[0027] Furthermore, the rotating cylinder is provided with arrayed insect attractant outlets located below the mosquito passage opening. The insect attractant (i.e., the attractant) emits its odor from the insect attractant outlets, attracting surrounding mosquitoes to gather in the rotating cylinder. The mosquitoes fly upwards along the direction of the odor source and enter the mosquito trap through the mosquito passage opening.

[0028] The invention employing the above technical solution has the following advantages:

[0029] This invention integrates lighting, fountain, and mosquito control functions into one device, offering multiple functionalities. It utilizes the power of the water flow in the fountain mechanism to pressurize the pressurized shell and create negative pressure in the mosquito trap to prevent escape. Furthermore, a power sharing mechanism simultaneously transmits the power of the water flow in the fountain mechanism to the rotation of the rotating cylinder and the operation of the mosquito trap, achieving multi-output from a single power source. The entire device only requires a water source to simultaneously achieve the three functions of fountain spraying, overall rotation, and mosquito trapping, eliminating the need for separate motors or air pumps for the mosquito trap and rotation drive, significantly reducing energy consumption and operating costs.

[0030] The lighting mechanism, fountain mechanism, insect trap, and power sharing mechanism are organically integrated into a compact space formed by the base and rotating cylinder. The various functional modules are linked together through a clever transmission structure. Compared with the existing technology where the lighting, fountain, and insect-killing devices are set up independently, the integrated design of this invention significantly reduces the equipment's footprint and installation complexity.

[0031] The rotating cylinder is driven to rotate continuously relative to the base via a gear transmission assembly, which in turn drives the fountain mechanism and lighting mechanism to rotate, achieving a dynamic rotating fountain effect. The water jets from the water pipes form a rotating water curtain or spray in the air, which, combined with the rotating lights, creates a more magnificent and colorful landscape effect.

[0032] This mosquito treatment device employs a method of attracting, negative pressure suction, and crushing to kill mosquitoes. It uses a lure and a light strip to attract mosquitoes, then uses the negative pressure generated by the piston cylinder to suck them into the trap, where the crushing teeth crush and kill them. The entire process does not involve high-voltage power grids, eliminating the risk of electric shock, and is suitable for use in crowded public places.

[0033] The system utilizes the power of water flow to drive each functional module, eliminating the need for additional electrical energy to power mechanical parts, except for lighting; it conforms to the design concept of energy conservation and environmental protection; the bait or insect attractant is removable and replaceable, and the crushed mosquito remains can be cleaned up regularly, making maintenance simple and convenient. Attached Figure Description

[0034] The present invention can be further illustrated by the non-limiting embodiments given in the accompanying drawings;

[0035] Figure 1 This is one of the structural schematic diagrams of an embodiment of a multifunctional garden landscape device according to the present invention;

[0036] Figure 2 This is a second structural schematic diagram of an embodiment of a multifunctional garden landscape device of the present invention;

[0037] Figure 3 This is a front view schematic diagram of the lighting mechanism and fountain mechanism in an embodiment of a multifunctional garden landscape device according to the present invention;

[0038] Figure 4 This is a schematic diagram of the lighting mechanism and fountain mechanism in an embodiment of a multifunctional garden landscape device of the present invention;

[0039] Figure 5 This is a front view schematic diagram of the lighting mechanism, fountain mechanism, and mosquito trap in an embodiment of a multifunctional garden landscape device of the present invention;

[0040] Figure 6 for Figure 5 Enlarged view of point A in the middle;

[0041] Figure 7 This is a schematic diagram of the power sharing mechanism, fountain mechanism, and mosquito trap in an embodiment of a multifunctional garden landscape device of the present invention;

[0042] Figure 8 This is a cross-sectional structural diagram of a mosquito trap in an embodiment of a multifunctional garden landscape device of the present invention;

[0043] Figure 9 This is a schematic cross-sectional view of the base in an embodiment of a multifunctional garden landscape device of the present invention.

[0044] The symbols for the main components are explained below:

[0045] 100. Lighting mechanism; 101. Lampshade; 102. Lighting lamp; 103. Support rod; 104. Wiring conduit; 105. Plywood; 106. Conduit interface; 107. Wiring branch pipe; 108. Conductive connector; 1081. Conductive head;

[0046] 200. Fountain mechanism; 201. Pressurized shell; 202. Water spray pipe; 203. Piston cylinder; 204. First one-way valve; 205. Second one-way valve; 206. Third valve port; 207. Vertical plate; 208. Turbine chamber; 209. Rotating shaft; 210. Driving wheel; 211. Fourth valve; 212. Transmission wheel; 213. Driven wheel; 214. Synchronous bevel gear; 215. Fixed bevel gear; 216. Fixed shaft cylinder; 217. Intermittent transmission assembly; 2171. First connecting rod; 2172. Second connecting rod; 2173. Hinge block; 218. Piston rod; 219. Connecting pipe; 220. Air inlet pipe;

[0047] 300. Rotating cylinder; 301. Decorative cap; 302. Insect attractant outlet; 303. Insects pass through the mouth;

[0048] 400. Base; 401. Fixing lug; 402. Waterproof connector; 403. Water inlet pipe; 404. Insect powder output pipe; 405. Collection tank; 406. Output port; 407. Conductive slip ring; 408. Step; 409. Interlayer;

[0049] 500. Mosquito trap; 501. Trapping tube; 5011. Evaporation port; 502. Crushing tube; 503. Feed pipe; 504. Crushing shaft; 5041. Crushing teeth; 505. Funnel; 506. Negative pressure chamber; 507. Cross; 508. Lure core; 509. Negative pressure hole;

[0050] 600. Power sharing mechanism; 601. Fixing rod; 602. Gear integration plate; 603. Secondary bevel gear; 604. First gear; 605. Second gear. Detailed Implementation

[0051] The present invention will be described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that similar or identical parts are referred to by the same reference numerals in the drawings or description. Implementations not shown or described in the drawings are forms known to those skilled in the art. In addition, directional terms mentioned in the embodiments, such as "up," "down," "top," "bottom," "left," "right," "front," and "back," are only for reference to the directions in the drawings and are not intended to limit the scope of protection of the present invention.

[0052] like Figures 1-9 As shown, a multifunctional garden landscape device according to an embodiment of the present invention includes: a base 400, a rotating cylinder 300, a lighting mechanism 100, a fountain mechanism 200, a mosquito trap 500, and a power sharing mechanism 600.

[0053] The base 400 is fixedly installed on the target ground, such as on the platform of a landscape pond. Fixing ears 401 protrude outwards from both sides of the base 400, and bolt holes are provided on the fixing ears 401. Anchor bolts can be used to firmly fix the base 400 to the ground, ensuring the stability of the entire device. A water inlet pipe 403 is provided at the bottom of the base 400. One end of the water inlet pipe 403 is connected to an external water source (such as a municipal water supply network or a circulating water pump), and the other end extends into the base 400. The water supplied by the municipal water supply network or circulating water pump has a certain water pressure. A mezzanine 409 is also provided inside the base 400 to accommodate electrical components such as connecting wires. Waterproof connectors 402 are embedded in the side walls of the base 400, and the waterproof connectors 402 are connected to an external power source to ensure safe and waterproof power supply. A conductive slip ring 407 is fixedly installed on the inner wall of the base 400. The conductive slip ring 407 is a ring-shaped conductive component used to realize power transmission between rotating and stationary components. A step 408 is formed on the inner side of the upper end of the base 400. The step 408 is used to rotatably mount the rotating cylinder 300, so that the rotating cylinder 300 can rotate freely about the vertical axis relative to the base 400.

[0054] The rotating cylinder 300 is a vertically arranged hollow cylindrical structure, with its bottom end rotatably mounted on the step 408 of the base 400. A decorative cap 301 is fitted onto the top of the rotating cylinder 300, serving both aesthetic purposes and preventing rainwater and debris from entering the interior. A mosquito passage 303 is provided on one side wall of the top of the rotating cylinder 300, allowing mosquitoes to enter. Below the mosquito passage 303, insect attractant outlet holes 302 are arranged in a circumferential array along the rotating cylinder 300 to release insect attractant odors and attract surrounding mosquitoes to the rotating cylinder 300. In fact, a decorative cap 301 is also fitted onto the middle of the rotating cylinder 300. These decorative caps 301 at the middle and top of the rotating cylinder 300 can be combined with the lampshade 101 to create a decorative structure.

[0055] The lighting mechanism 100 includes a lampshade 101, a lighting lamp 102, a support rod 103, and a wiring conduit 104. The lampshade 101 is made of a transparent or semi-transparent material (such as tempered glass or acrylic sheet) and is fixedly installed on the top of the rotating cylinder 300. The lighting lamp 102 is housed inside the lampshade 101 and is preferably an LED lamp, which has the advantages of energy saving and long lifespan. Its color temperature can be selected within the range of 3000K-5000K according to landscape requirements. The bottom of the lampshade 101 is fixedly connected to the top of the rotating cylinder 300 via the support rod 103, which is a hollow rod. A wiring conduit 104 is fixedly connected between the lighting lamp 102 and the top of the rotating cylinder 300, and a cable can be run through the wiring conduit 104. The bottom end of the wiring conduit 104 is located inside the rotating cylinder 300 and extends outwards to the outside of the pressure chamber 201, communicating with the conduit interface 106; it is used to accommodate and protect the cable connecting the lighting lamp 102. A vertically installed wiring branch pipe 107 is also provided inside the rotating cylinder 300. The top end of the wiring branch pipe 107 is connected to the conduit interface 106, and the cable inside the wiring branch pipe 107 is connected to the cable inside the conduit interface 106. A conductive connector 108 electrically connected to the cable is inserted into the bottom end of the wiring branch pipe 107. The conductive connector 108 is provided with a conductive head 1081. A composite plate 105 is also fixedly installed on the top of the rotating cylinder 300. The composite plate 105 is a horizontally arranged plate used to fix and support the lighting mechanism 100.

[0056] The fountain mechanism 200 includes a pressurization shell 201, several water spray pipes 202, a turbine chamber 208, a piston cylinder 203, a rotating shaft 209, a gear transmission assembly, and an intermittent transmission assembly 217.

[0057] The pressurization shell 201 is fixedly installed on the top of the rotating cylinder 300 (or composite plate 105), and a pressurization chamber is formed inside the pressurization shell 201. Several water spray pipes 202 are fixedly connected to the pressurization shell 201 and communicate with the inner cavity of the pressurization shell 201. The outlets of the water spray pipes 202 can be set in different angles and shapes to create a variety of fountain water feature effects.

[0058] The turbine chamber 208 is fixedly disposed inside the rotating cylinder 300. A fourth valve 211 is installed at the bottom end of the turbine chamber 208, and the fourth valve 211 is connected to a connecting pipe 219. The connecting pipe 219 is connected to a fixed shaft cylinder 216 fixed on the base 400, and the connecting pipe 219 and the fixed shaft cylinder 216 can rotate relative to each other, for example, through a sealed bearing connection. The fixed shaft cylinder 216 is a fixed hollow tubular structure, and its bottom end is connected to a water inlet pipe 403. A third valve is installed at the top end of the turbine chamber 208, and the third valve is connected to a third valve port 206. The third valve port 206 is located at the bottom of the pressurization shell 201, or the third valve port 206 is connected to the pressurization shell 201 through a pipeline. Water from the water source enters the fixed shaft cylinder 216 through the water inlet pipe 403, then enters the turbine chamber 208 through the connecting pipe 219 and the fourth valve 211, impacting the turbine inside the turbine chamber 208 to make it rotate, and then enters the pressurization shell 201 through the third valve port 206, and finally sprays out from the water spray pipe 202.

[0059] The piston cylinder 203 is fixedly mounted on the pressure chamber 201. A first one-way valve 204 is installed at the air inlet of the piston cylinder 203. The first one-way valve 204 is connected to the bottom end of the mosquito trap 500 via an air inlet pipe 220, allowing gas to flow only from the mosquito trap 500 to the piston cylinder 203. A second one-way valve 205 is installed at the air outlet of the piston cylinder 203. The second one-way valve 205 is connected to the pressure chamber 201, allowing gas to flow only from the piston cylinder 203 to the pressure chamber 201. A piston rod 218 is installed inside the piston cylinder 203. When the piston rod 218 reciprocates inside the piston cylinder 203, it draws air from the bottom of the mosquito trap 500 through the first one-way valve 204, creating a negative pressure inside the mosquito trap 500. The drawn air is discharged into the pressurization shell 201 through the second one-way valve 205 and sprayed out from the spray pipe 202 along with the water flow.

[0060] A rotating shaft 209 is rotatably mounted within a turbine cavity 208, and a turbine is fixedly mounted on the rotating shaft 209, located within the turbine cavity 208. When water flow impacts the turbine blades, it drives the turbine and the rotating shaft 209 to rotate. One end of the rotating shaft 209 (e.g.) Figure 5 The left end of the rotating shaft 209 extends out of the turbine cavity 208 and is connected to the power input end of the gear transmission assembly. The power output end of the gear transmission assembly is connected to the fixed shaft cylinder 216. The other end of the rotating shaft 209 (e.g.) Figure 5 The right end of the turbine chamber 208 extends out and is connected to the power input end of the intermittent transmission assembly 217. The power output end of the intermittent transmission assembly 217 is connected to the piston rod 218.

[0061] The gear transmission assembly includes a vertical plate 207, a driving gear 210, a transmission gear 212, a driven gear 213, a synchronous bevel gear 214, and a fixed bevel gear 215. The vertical plate 207 is fixedly installed inside the rotating cylinder 300, serving as the mounting base for each transmission component. The driving gear 210 is fixedly installed at the left end of the rotating shaft 209. The transmission gear 212 is rotatably mounted on the vertical plate 207, and is connected to both the driving gear 210 and the driven gear 213, for example, through gear meshing to achieve power reversal or speed change; the rotatable installation of the transmission gear 212 can be achieved through a shaft and bearings. In practice, the driving gear 210, transmission gear 212, and driven gear 213 can all be spur gears, with different numbers of teeth on each. The driven gear 213 is rotatably mounted on the vertical plate 207 and is connected to the transmission gear 212. The synchronous bevel gear 214 is coaxially mounted with the driven gear 213 and meshes with the fixed bevel gear 215. The fixed bevel gear 215 is fixedly mounted on the fixed shaft cylinder 216 and remains stationary. The working principle of the gear transmission assembly is as follows: the rotation of the rotating shaft 209 drives the driving wheel 210 to rotate, and the driving wheel 210 drives the driven wheel 213 to rotate through the transmission wheel 212. The driven wheel 213 drives the synchronous bevel gear 214, which is mounted on the same axis, to rotate. Since the fixed bevel gear 215 is stationary, the synchronous bevel gear 214 rotates around its own axis while also revolving around the axis of the fixed bevel gear 215, thereby driving the vertical plate 207 and the rotating cylinder 300 to rotate as a whole.

[0062] In fact, the driving wheel 210 and the driven wheel 213 can also be pulleys and connected by a belt, thus eliminating the need for the transmission wheel 212.

[0063] In this embodiment, the intermittent transmission assembly 217 includes a first connecting rod 2171, a second connecting rod 2172, and a hinge block 2173. One end of the first connecting rod 2171 is fixedly sleeved on the right end of the rotating shaft 209. The free end of the first connecting rod 2171 is hinged to the second connecting rod 2172, and the free end of the second connecting rod 2172 is hinged to the hinge block 2173. The hinge block 2173 is rotatably mounted on the bottom end of the piston rod 218, and the rotatable connection can be achieved through a hinge pin. The rotation of the rotating shaft 209 drives the first connecting rod 2171 to rotate, and the first connecting rod 2171 drives the piston rod 218 to reciprocate within the piston cylinder 203 through the second connecting rod 2172 and the hinge block 2173.

[0064] In fact, depending on actual needs, the intermittent transmission assembly 217 in this embodiment can also be selected to include a cam-crank transmission structure, specifically including a cam, rocker arm, crank, and connecting rod, and assembled in a conventional installation manner to achieve intermittent transmission of power to the rotating shaft 209.

[0065] In this embodiment, the mosquito trap 500 includes a trapping tube 501 and a crushing tube 502 fixed inside the rotating cylinder 300. The trapping tube 501 is located at the top, and the crushing tube 502 is located at the bottom of the trapping tube 501. The top opening of the trapping tube 501 communicates with the mosquitoes on the rotating cylinder 300 through an opening 303; the top of the trapping tube 501 is also provided with an evaporation port 5011, which is opposite to the insect attractant outlet 302 and communicates with it to disperse the scent of the attractant 508 to the outside of the rotating cylinder 300.

[0066] At least two funnels 505 (four in this embodiment) are vertically spaced inside the trapping tube 501. The larger opening of each funnel 505 faces upward and the smaller opening faces downward, forming a one-way guiding structure to prevent mosquitoes that have entered from escaping. A lure 508 is detachably installed inside the trapping tube 501 via a cross 507. The lure 508 contains mosquito attractant, or is impregnated with mosquito attractant based on slow-release technology. The mosquito attractant is existing technology. The funnel 505 at the lowest end of the trapping tube 501, together with the side wall and bottom wall of the trapping tube 501, forms a negative pressure chamber 506. The negative pressure chamber 506 is connected to the first one-way valve 204 through an air inlet pipe 220. A negative pressure hole 509 is provided on the negative pressure chamber 506, which is connected to the inner cavity of the lowest funnel 505. When the piston cylinder 203 sucks, a negative pressure is formed in the negative pressure chamber 506, which sucks down the mosquitoes that fall on the trapping tube 501 through the negative pressure hole 509 and into the crushing tube 502; the diameter of the negative pressure hole 509 is smaller than the size of a normal mosquito, so mosquitoes cannot pass through.

[0067] In fact, two funnels 505 can also be vertically spaced inside the trapping tube 501 as needed.

[0068] In this embodiment, a crushing shaft 504 is provided inside the crushing cylinder 502, and crushing teeth 5041 are provided on the crushing shaft 504. A discharge pipe 503 is connected to the bottom of the crushing cylinder 502, and the discharge pipe 503 extends downward and connects to a collection trough 405 provided inside the base 400. The collection trough 405 is used to collect the crushed mosquito remains. An outlet 406 is provided on the bottom or side wall of the base 400. The outlet 406 is connected to the collection trough 405 and is connected to the insect powder output pipe 404, which can serve as a channel for discharging remains during cleaning.

[0069] In fact, the inner wall of the pulverizing cylinder 502 is also provided with pulverizing teeth 5041, which cooperate with the pulverizing teeth 5041 provided on the pulverizing shaft 504. The insect powder output pipe 404 can be connected to a negative pressure extraction pipe for periodically discharging the mosquito remains collected in the collection tank 405; the collection tank 405 is equipped with an openable and closable cover for convenient periodic cleaning of mosquito remains as an auxiliary means.

[0070] In practice, a gate (not shown in the figure) can also be provided between the trapping cylinder 501 and the crushing cylinder 502. An adjusting spring is connected between the gate and the inner wall of the rotating cylinder 300. When the rotating cylinder 300 is stationary, the adjusting spring provides elastic force to close the gate at the outlet of the funnel 505 at the bottom of the trapping cylinder 501. When the rotating cylinder 300 is driven to rotate, the gate generates centrifugal force and overcomes the elastic force of the spring to release the seal. It can be understood that in this scenario, the mosquito trap 500 can trap and kill mosquitoes at any time; then, it crushes the insects while the rotating cylinder 300 is rotating, which has a high adaptability. In addition, the slight vibration generated during the rotation of the crushing cylinder 502 will be transmitted to the trapping cylinder 501, which will also help the mosquitoes in the trapping cylinder 501 fall down and help the funnel 505 prevent the mosquitoes from escaping.

[0071] In this embodiment, the power sharing mechanism 600 includes a fixed rod 601, a gear integrated plate 602, a secondary bevel gear 603, a first gear 604, and a second gear 605. The gear integrated plate 602 is fixedly mounted on the bottom end of the crushing cylinder 502 via the fixed rod 601. The secondary bevel gear 603 is rotatably mounted on the gear integrated plate 602 and meshes with the fixed bevel gear 215. The bottom end of the crushing shaft 504 extends out of the crushing cylinder 502 and is equipped with the first gear 604. The first gear 604 meshes with the second gear 605, and the second gear 605 is coaxially mounted with the secondary bevel gear 603. The rotatable mounting of the secondary bevel gear 603 can be achieved via a shaft or bearing. The working principle of the power sharing mechanism 600 is as follows: the fixed bevel gear 215 remains stationary, while the secondary bevel gear 603 rotates with the rotating cylinder 300 and meshes with the fixed bevel gear 215. The secondary bevel gear 603 drives the first gear 604 to rotate through the coaxially mounted second gear 605. The first gear 604 drives the crushing shaft 504 to rotate, and the crushing teeth 5041 rotate with the crushing shaft 504, crushing and killing the mosquitoes that fall from the trapping cylinder 501 into the crushing cylinder 502. The crushed mosquito remains fall into the collection tank 405 through the discharge pipe 503 for storage.

[0072] In practice, depending on the needs, the power sharing mechanism 600 in this embodiment may also include a fixed rod 601, a gear integration plate 602, a secondary bevel gear 603, and a secondary bevel gear; the gear integration plate 602 is fixedly installed at the bottom end of the crushing cylinder 502 by the fixed rod 601, the secondary bevel gear 603 and the secondary bevel gear are rotatably installed on the gear integration plate 602 and mesh with each other, and the secondary bevel gear 603 also meshes with the fixed bevel gear 215.

[0073] In one embodiment, such as Figure 1 , Figure 3 , Figure 5 , Figure 6 , Figure 9As shown, the base 400 is provided with a waterproof connector 402, a conductive slip ring 407, and a sandwich layer 409. A wiring branch pipe 107 is provided inside the rotating cylinder 300, a wiring pipe 104 is provided on the pressure shell 201, and a conduit interface 106 is provided inside the pressure shell 201. The wiring pipe 104 is connected to the top end of the wiring branch pipe 107 through the conduit interface 106.

[0074] The waterproof connector 402 is connected to an external power source. A connecting line (not shown in the figure, typically a pre-embedded cable) is installed within the interlayer 409, connecting the waterproof connector 402 to the conductive slip ring 407. A conductive connector 108 is inserted into the bottom of the branch pipe 107. The conductive connector 108 has a conductive head 1081, which is slidably connected to and electrically connected to the conductive slip ring 407. Cables are installed within the branch pipe 107, the conduit interface 106, and the connecting pipe 104, electrically connecting the conductive connector 108 to the lighting lamp 102. When the rotating cylinder 300 rotates, the conductive head 1081 slides on the conductive slip ring 407, maintaining electrical contact at all times, thereby achieving a stable transmission of power from the external power source to the rotating lighting lamp 102.

[0075] In this embodiment, the lighting mechanism 100 also includes a light strip (not shown in the figure) disposed on the inner wall of the rotating cylinder 300. The light strip is arranged around the inner wall of the rotating cylinder 300 and / or in a circular array. The light strip can emit light of a specific wavelength, such as 365nm-420nm ultraviolet light, which serves both as decorative lighting and as an aid in attracting mosquitoes. The light strip is electrically connected to branch cables, which are electrically connected to the cables in the wiring conduit 107. The branch cables, cables, and other electrical components are preferably commercially available products with waterproof and dustproof functions.

[0076] In one embodiment, such as Figure 2 As shown, the rotating cylinder 300 has arrayed insect attractant outlets 302 located below the mosquito passage 303. Inside the rotating cylinder 300, corresponding to the insect attractant outlets 302, is a trapping tube 501 containing a lure 508. The scent emitted by the lure 508 is dispersed outward from the rotating cylinder 300 through the insect attractant outlets 302, attracting surrounding mosquitoes to gather in the rotating cylinder 300. The mosquitoes fly upward along the direction of the scent source and enter the trapping tube 501 of the mosquito trap 500 through the mosquito passage 303. A decorative cap 301 is located at the top of the rotating cylinder 300, with its outer edge extending outward, which can provide some rain protection for the mosquito passage 303 and the insect attractant outlets 302, preventing rainwater from entering.

[0077] In this embodiment, the attractant inside the lure core 508 can be a synthetic mosquito pheromone or a plant-derived attractant, such as lactic acid or octenol. The lure core 508 is detachably snapped into the trap tube 501 via a cross 507 for easy periodic replacement. The attractant odor emitted from the attractant outlet 302 works synergistically with the ultraviolet light emitted by the light strip to create a dual attraction effect of odor and light, significantly improving the mosquito trapping efficiency.

[0078] In one embodiment, the number of water jet pipes 202 is 4-8, evenly distributed along the circumference of the pressurization shell 201. The outlets of each water jet pipe 202 can be set at different inclination angles, causing the water jets to form water sprays of varying heights and shapes in the air, enhancing the landscape effect. When the rotating cylinder 300 rotates continuously under the drive of the gear transmission assembly, each water jet pipe 202 rotates along with it, causing the water jets to trace dynamic arc trajectories in the air, creating a rotating fountain effect. Simultaneously, the water pressure inside the pressurization shell 201 fluctuates periodically due to the continuous pumping of air into the pressurization shell 201 by the piston cylinder 203, causing dynamic changes in the height and shape of the water jets sprayed from the water jet pipes 202, further enriching the visual layers of the fountain water feature. The collection tank 405 inside the base 400 can be periodically cleaned by manually inputting / outputting cleaning fluid through the outlet 406 and the insect powder output pipe 404, ensuring long-term stable operation of the device.

[0079] In fact, multiple garden landscape multifunctional devices can be set up in this embodiment and arranged according to the actual scene of the garden landscape. A water pool can be set up independently, and the water in the pool is pumped out by the set water pump and delivered to multiple garden landscape multifunctional devices in multiple channels simultaneously.

[0080] The working principle of a multifunctional garden landscape device in this embodiment is as follows:

[0081] The device uses pressurized water flow from a water source as its driving force. The water flow impacts a turbine, converting water energy into mechanical energy. The power is then distributed to various functional modules via a mechanical transmission structure, achieving a multi-functional integrated linkage effect from a single source.

[0082] Specifically, external water enters the fixed shaft cylinder 216 through the water inlet pipe 403, and then enters the turbine chamber 208 through the connecting pipe 219 and the fourth valve 211; the pressurized water flow impacts the turbine blades, driving the turbine and rotating shaft 209 to rotate continuously; the water flow after impacting the turbine enters the pressurization shell 201 through the third valve port 206, and finally sprays out from the water spray pipe 202 to form a fountain water feature.

[0083] The rotational power of the rotating shaft 209 is output synchronously from both ends. On one hand, one end of the rotating shaft 209 transmits power to the synchronous bevel gear 214 through the driving wheel 210, the transmission wheel 212, and the driven wheel 213. Since the fixed bevel gear 215 is fixedly installed on the fixed shaft cylinder 216 and remains stationary, the synchronous bevel gear 214 generates a revolution motion during meshing, thereby driving the entire rotating cylinder 300 to continuously rotate relative to the base 400 around the vertical axis through the vertical plate 207. The rotation of the rotating cylinder 300 synchronously drives the lighting mechanism 100, the pressurized shell 201, and the water spray pipe 202 to rotate together, so that the lighting beams and fountain water flow form a dynamic rotating effect in the air, greatly enriching the landscape's aesthetic appeal. At the same time, the rotation of the rotating cylinder 300 also drives the secondary bevel gear 603, which is linked to the rotating cylinder 300, to revolve around the fixed bevel gear 215. The rotation of the secondary bevel gear 603 drives the first gear 604 to rotate through the meshing of the coaxial second gear 605, thereby driving the crushing shaft 504 and the crushing teeth 5041 to rotate at high speed, providing crushing power for mosquito killing.

[0084] On the other hand, the other end of the rotating shaft 209 converts the rotational motion into the reciprocating linear motion of the piston rod 218 through the intermittent transmission assembly 217: the first connecting rod 2171 rotates with the rotating shaft 209, and drives the piston rod 218 to perform periodic reciprocating suction action in the piston cylinder 203 through the second connecting rod 2172 and the hinge block 2173. When the piston rod 218 moves downward, a negative pressure is formed inside the piston cylinder 203. The first one-way valve 204 opens, and the negative pressure is transmitted through the air inlet pipe 220 to the negative pressure chamber 506 of the mosquito trap 500. The negative pressure chamber 506 forms a suction force at the funnel 505 at the lowest end of the trapping cylinder 501 through the negative pressure hole 509. When the piston rod 218 moves upward, the pressure inside the piston cylinder 203 increases, the first one-way valve 204 closes, and the second one-way valve 205 opens, pumping the sucked air into the pressurizing shell 201. The air is then sprayed out from the spray pipe 202 along with the water flow, which helps to pressurize the water flow inside the pressurizing shell 201.

[0085] The above provides a detailed description of a multifunctional garden landscape device provided by the present invention. The specific embodiments described are merely for the purpose of helping to understand the method and core ideas of the present invention. It should be noted that those skilled in the art can make various improvements and modifications to the present invention without departing from its principles, and these improvements and modifications also fall within the protection scope of the claims of the present invention.

Claims

1. A multifunctional garden landscape device, characterized in that, include: A base (400) is fixedly installed on the target ground, and a rotating cylinder (300) is rotatably installed on the base (400); The lighting mechanism (100) includes a lampshade (101) and a lighting lamp (102) disposed inside the lampshade (101). The lighting lamp (102) is connected to a power source, and the lampshade (101) is fixedly installed on the top of the rotating cylinder (300). A fountain mechanism (200) includes a pressurizing shell (201) and several water spray pipes (202). The pressurizing shell (201) is fixedly installed on the top of the rotating cylinder (300) and connected to a water source. The several water spray pipes (202) are fixedly connected to the pressurizing shell (201) and connected to the inner cavity of the pressurizing shell (201). A mosquito trap (500) is installed inside a rotating cylinder (300). A mosquito passage opening (303) is provided on one side wall of the top of the rotating cylinder (300). The top opening of the mosquito trap (500) is connected to the mosquito passage opening (303). A power sharing mechanism (600) is located inside the rotating cylinder (300), and the power sharing mechanism (600) is connected to the fountain mechanism (200) for transmitting the water flow power of the fountain mechanism (200) to the mosquito trap (500).

2. The multifunctional garden landscape device according to claim 1, characterized in that: The fountain mechanism (200) also includes a turbine chamber (208), a piston cylinder (203), a rotating shaft (209), a gear transmission assembly, and an intermittent transmission assembly (217); A fourth valve (211) is installed at the bottom of the turbine chamber (208), and the fourth valve (211) is connected to a connecting pipe (219). The connecting pipe (219) is connected to a fixed shaft cylinder (216) fixed on the base (400). The connecting pipe (219) and the fixed shaft cylinder (216) can rotate relative to each other. The fixed shaft cylinder (216) is connected to a water source. A third valve (206) is installed at the top of the turbine chamber (208), and the third valve (206) is connected to the pressurization shell (201). The piston cylinder (203) is fixedly installed on the pressure shell (201). A first one-way valve (204) is installed at the air inlet of the piston cylinder (203). The first one-way valve (204) is connected to the bottom end of the mosquito trap (500). A second one-way valve (205) is installed at the air outlet of the piston cylinder (203). The second one-way valve (205) is connected to the pressure shell (201). A piston rod (218) is provided inside the piston cylinder (203). The rotating shaft (209) is rotatably mounted in the turbine cavity (208). A turbine is fixedly mounted on the rotating shaft (209). The turbine is located in the turbine cavity (208). One end of the rotating shaft (209) extends out of the turbine cavity (208) and is connected to the power input end of the gear transmission assembly. The power output end of the gear transmission assembly is connected to the fixed shaft cylinder (216). The other end of the rotating shaft (209) extends out of the turbine cavity (208) and is connected to the power input end of the intermittent transmission assembly (217). The power output end of the intermittent transmission assembly (217) is connected to the piston rod (218).

3. The multifunctional garden landscape device according to claim 2, characterized in that: The gear transmission assembly includes a vertical plate (207), a driving wheel (210), a driven wheel (213), a synchronous bevel gear (214), and a fixed bevel gear (215). The vertical plate (207) is fixedly installed inside the rotating cylinder (300). The driving wheel (210) is fixedly installed on the rotating shaft (209). The driven wheel (213) is rotatably installed on the vertical plate (207) and is connected to the driving wheel (210) in a transmission connection. The synchronous bevel gear (214) is coaxially installed with the driven wheel (213) and meshes with the fixed bevel gear (215). The fixed bevel gear (215) is fixedly installed on the fixed shaft cylinder (216).

4. The multifunctional garden landscape device according to claim 3, characterized in that: The mosquito trap (500) includes a trapping tube (501) and a crushing tube (502) fixed inside a rotating tube (300). The crushing tube (502) is located at the bottom end of the trapping tube (501). A crushing shaft (504) is provided inside the crushing tube (502), and crushing teeth (5041) are provided on the crushing shaft (504).

5. The multifunctional garden landscape device according to claim 4, characterized in that: The power sharing mechanism (600) includes a fixed rod (601), a gear integration plate (602), a secondary bevel gear (603), a first gear (604), and a second gear (605). The gear integration plate (602) is fixedly installed at the bottom of the crushing cylinder (502) by the fixed rod (601). The secondary bevel gear (603) is rotatably installed on the gear integration plate (602) and meshes with the fixed bevel gear (215). The bottom end of the crushing shaft (504) extends out of the crushing cylinder (502) and is equipped with the first gear (604). The first gear (604) meshes with the second gear (605). The second gear (605) is coaxially installed with the secondary bevel gear (603).

6. The multifunctional garden landscape device according to claim 4, characterized in that: The trapping tube (501) has at least two funnels (505) arranged vertically at intervals inside. The trapping tube (501) has a lure (508) detachably installed inside. The funnel (505) located at the lowest end of the trapping tube (501) forms a negative pressure chamber (506) by enclosing the side wall and bottom wall of the trapping tube (501). The negative pressure chamber (506) is connected to the first one-way valve (204). The negative pressure chamber (506) has a negative pressure hole (509) that is connected to the funnel (505).

7. The multifunctional garden landscape device according to claim 2, characterized in that: The intermittent transmission assembly (217) includes a first connecting rod (2171), a second connecting rod (2172), and a hinge block (2173). One end of the first connecting rod (2171) is fixedly sleeved on the rotating shaft (209). The free end of the first connecting rod (2171) is hinged to the second connecting rod (2172). The free end of the second connecting rod (2172) is hinged to the hinge block (2173). The hinge block (2173) is rotatably mounted on the bottom end of the piston rod (218).

8. The multifunctional garden landscape device according to any one of claims 1-7, characterized in that: The base (400) is provided with a waterproof connector (402), a conductive slip ring (407), and a sandwich layer (409). A wiring branch pipe (107) is provided inside the rotating cylinder (300). A wiring pipe (104) is provided on the pressure-boosting shell (201). A conduit interface (106) is provided inside the pressure-boosting shell (201). The wiring pipe (104) is connected to the top of the wiring branch pipe (107) through the conduit interface (106). The waterproof connector (402) is connected to a power source. A connecting line is provided inside the sandwich layer (409). The conductive slip ring (407) is located on the inner wall of the base (400). The connecting line connects the waterproof connector (402) and the conductive slip ring (407). The wiring branch pipe (107)... A conductive connector (108) is inserted at the bottom. The conductive connector (108) is provided with a conductive head (1081). The conductive head (1081) is slidably connected to the conductive slip ring (407) and electrically connected to the conductive slip ring (407). A cable is provided inside the wiring branch pipe (107) and the wiring pipe (104). The cable is electrically connected to the conductive connector (108) and the lighting lamp (102).

9. The multifunctional garden landscape device according to claim 8, characterized in that: The lighting mechanism (100) also includes a light strip, which is disposed inside a rotating cylinder (300). The light strip is electrically connected to a branch cable, which is electrically connected to a cable inside a wiring conduit (107).

10. The multifunctional garden landscape device according to claim 1, characterized in that: The rotating cylinder (300) has an array of insect attractant outlet holes (302) located below the mosquito passage (303).

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