A remote-controlled boat with sterilization and disinfection function
The remotely controlled boat with a removable disinfection box and adjustable dispensing mechanism addresses maintenance and efficiency issues, providing cost-effective and efficient disinfection by allowing easy chemical replacement and controlled release.
Patent Information
- Application Number
- DE202025002713
- Authority / Receiving Office
- DE · DE
- Patent Type
- Utility models
- Current Assignee / Owner
- Filing Date
- 2025-09-15
- Publication Date
- 2026-02-12
- Estimated Expiration
- 2035-09-30
AI Technical Summary
Existing remotely controlled boats for disinfection in bodies of water face maintenance challenges due to integrated chemical containers requiring full disassembly for cleaning and chemical changes, leading to high operational costs and inefficient disinfection processes.
A remotely controlled boat with a removable disinfection box and adjustable dispensing mechanism, allowing for easy replacement and adjustment of disinfectants, including a chemical container with symmetrically arranged dosing slots for controlled release.
Facilitates low-maintenance operation with adjustable disinfection rates, enabling efficient and cost-effective sterilization and disinfection of water bodies.
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Abstract
Description
Technical area
[0001] The present invention relates to the technology field of remotely controlled boats with sterilization and disinfection function, in particular a remotely controlled boat with sterilization and disinfection function. Technical background
[0002] Currently, disinfection efforts in bodies of water rely primarily on manual spraying or stationary disinfection devices, resulting in low efficiency, uneven coverage, and high operational risk. While some remotely controlled boats equipped with disinfection devices already exist, they generally suffer from the following shortcomings: Fixed structure, difficult to maintain: The chemical container and the boat hull are usually designed as an integrated unit, so that when changing chemicals or cleaning, the entire device has to be disassembled, resulting in high maintenance costs; To solve the aforementioned technical problems, a remotely controlled boat with sterilization and disinfection functions is being developed. Content of the invention
[0003] The technical problems underlying the present invention consist of overcoming the aforementioned shortcomings of the prior art and providing a remotely controlled boat with sterilization and disinfection function.
[0004] To solve the aforementioned technical problem, the present invention provides for a remotely controlled boat with sterilization and disinfection function: including an electrically remotely controlled boat;
[0005] The electric remote-controlled boat is equipped with a removable disinfection box designed to hold a disinfectant with sterilizing properties and to release it into the water to sterilize and disinfect the water body;
[0006] The electric remote-controlled boat has a solar light attached to its top.
[0007] In an advantageous embodiment, the disinfection box comprises a chemical container and a bottom closure, wherein the bottom closure is attached to the underside of the chemical container and serves to open and close the release of the disinfectant contained in the chemical container;
[0008] At the top of the chemical container, several locking plates are evenly spaced around its circumference. A mounting ring is provided at the bottom of the electrically operated remote-controlled boat, and the inner wall of this ring is uniformly patterned with several arcuate grooves. At one end of the arcuate groove at the bottom of the mounting ring, there is a slot that extends into the arcuate groove. The locking plates are inserted through this slot into the arcuate groove, and after a rotational movement, the chemical container is securely fastened to the mounting ring by the interaction of the locking plates with the arcuate grooves.
[0009] In an advantageous embodiment, the lower end of the chemical container is symmetrically provided with an arcuate adjustment groove that penetrates the bottom of the chemical container. A locking area is arranged on the lower inner base of the bottom closure, each locking area comprising two symmetrical latches. The latches engage in the corresponding arcuate adjustment grooves, allowing the bottom closure to be attached to the lower end of the chemical container.
[0010] Symmetrically arranged dosing mechanisms are located on the side wall of the lower end of the chemical container and on the side wall of the bottom cap. When the bottom cap is turned, the dosing channel opens as soon as the dosing mechanism on the side wall of the chemical container and the dosing mechanism on the side wall of the bottom cap are aligned, allowing the substance in the chemical container to be dispensed through the dosing mechanism. When the dosing mechanisms on the side wall of the chemical container and on the side wall of the bottom cap are fully aligned, the dosing channel closes.
[0011] A dispensing opening is located at the bottom of the chemical container.
[0012] In an advantageous embodiment, the metering mechanism consists of several uniformly arranged metering slots;
[0013] The dispensing slots on the side wall of the chemical container penetrate the side wall of the chemical container;
[0014] The dispensing slots on the side wall of the bottom closure penetrate the side wall of the bottom closure.
[0015] In an advantageous embodiment, the chemical container consists of a combination of a left container and a right container, wherein the locking plates are arranged uniformly at the upper end of the left container and right container, and the bottom closure is attached to the underside of the chemical container;
[0016] One side of the left container is rotatably connected to one side of the right container. Several locking hooks are attached to the opposite side of the left container, while several locking plates are provided on the opposite side of the right container; each locking plate has locking grooves that interact with the locking hooks.
[0017] In an advantageous embodiment, the chemical container is designed as an extendable container, wherein the locking plates are arranged uniformly at the upper end of the extendable container and the bottom closure is attached to the underside of the extendable container.
[0018] In an advantageous embodiment, the chemical container is designed as a straight container, wherein the locking plates are arranged uniformly at the upper end of the straight container and the bottom closure is attached to the underside of the straight container.
[0019] The advantages of the present invention over the prior art are:
[0020] The advantages of the present invention over the prior art are: 1. A removable disinfection box is located beneath the electric remote-controlled boat. This allows for the storage of sterilizing and disinfecting agents in the disinfection box. Replacing the agents or cleaning is simple, and replacing the disinfection box is also straightforward, thus keeping maintenance costs low. 2. The electric remote-controlled boat can be moved remotely on the water, releasing the chemicals from its container into the water, thus sterilizing and disinfecting it. This allows for convenient and easy handling. 3. A dispensing opening is located at the bottom of the chemical container. Symmetrically positioned dispensing mechanisms are located on the side wall of the bottom of the chemical container and on the side wall of the bottom cap. The dispensing mechanism consists of several evenly spaced dispensing slots. When rapid release of the agent is required, the bottom cap is rotated so that the dispensing slots on the side wall of the chemical container and the dispensing slots on the side wall of the bottom cap are aligned. This opens the dispensing channel, allowing the agent in the chemical container to be dispensed rapidly through the dispensing slots. To adjust the dispensing rate, the bottom cap can be rotated so that the dispensing slots on the side wall of the chemical container and the dispensing slots on the side wall of the bottom cap are gradually offset.This narrows the dosing channel and reduces the dosing speed. The further the dosing slots are offset, the smaller the dosing channel becomes, thus allowing the dosing speed to be regulated. If the dosing slots on the side wall of the chemical container and on the side wall of the bottom cap are completely offset, the dosing channel is closed. In this case, the product is dispensed only through the dosing opening, reducing the dosing speed to a minimum. The dosing speed can therefore be adjusted according to the application requirements, which significantly simplifies handling. Explanation of the figures Fig. Figure 1 is a schematic, perspective top view of a remotely controlled boat with sterilization and disinfection function according to embodiment 1 of the present invention. Fig. Figure 2 is a side view of a remotely controlled boat with sterilization and disinfection function according to embodiment 1 of the present invention. Fig. Figure 3 is a schematic, perspective view from below of a remotely controlled boat with sterilization and disinfection function according to embodiment 1 of the present invention. Fig. Figure 4 is a schematic representation of the exploded view of a remotely controlled boat with sterilization and disinfection function according to embodiment 1 of the present invention. Fig. Figure 5 is a schematic representation of the bottom structure of an electric remote-controlled boat according to embodiment 1 of a remote-controlled boat with sterilization and disinfection function of the present invention. Fig. Figure 6 is a schematic representation of the structure of the left container and right container of a remotely controlled boat with sterilization and disinfection function according to embodiment 1 of the present invention. Fig. Figure 7 is a schematic representation of the bottom closure of a remotely controlled boat with sterilization and disinfection function according to embodiment 1 of the present invention. Fig. Figure 8 is a sectional view along line AA in Fig. 2. Fig. Figure 9 is an enlarged partial view of position B in Fig. 6. Fig. Figure 10 is an enlarged partial view of position C in Fig. 5. Fig. Figure 11 is the front view of the upper and lower containers of a remotely controlled boat with sterilization and disinfection function according to embodiment 2 of the present invention. Fig. Figure 12 is a section view along line DD in Fig. 11. Fig. Figure 13 is a schematic representation of the structure of the upper and lower containers of a remotely controlled boat with sterilization and disinfection function according to embodiment 2 of the present invention. Fig. Figure 14 is a front view of the upper and lower container of a remotely controlled boat with sterilization and disinfection function according to embodiment 3 of the present invention. Fig. Figure 15 is a sectional view along line EE in Fig. 14. Fig. Figure 16 is a schematic representation of the structure of the upper and lower containers of a remotely controlled boat with sterilization and disinfection function according to embodiment 3 of the present invention. Fig. Figure 17 is a front view of the straight container of a remotely controlled boat with sterilization and disinfection function according to embodiment 4 of the present invention. Fig. Figure 18 is a sectional view along line DD in Fig. 11. Fig. Figure 19 is a schematic representation of the structure of the straight container of a remotely controlled boat with sterilization and disinfection function according to embodiment 4 of the present invention.
[0021] As shown in the figures: 1. Electric remote-controlled boat, 2. Solar light, 3. Bottom lock, 4. Locking plate, 5. Mounting ring, 6. Arc-shaped groove, 7. Insertion slot, 8. Arc-shaped adjustment groove, 9. Snap-in area, 10. Latch, 11. Dispensing opening, 12. Dispensing slot, 13. Left container, 14. Right container, 15. Fixing hook, 16. Locking plate, 17. Locking groove, 18. Extendable container, 19. Straight container, 20. Upper container, 21. Lower container, 22. Locking ring, 23. Upper container section, 24. Lower container section, 25. Rubber connector. Specific embodiment
[0022] The present invention of a remotely controlled boat with sterilization and disinfection function is explained in more detail below with reference to the figures. Fig. 1-19 includes a remote-controlled boat with sterilization and disinfection function, an electric remote-controlled boat 1;
[0023] The electric remote-controlled boat 1 is equipped with a removable disinfection box designed to hold a disinfectant with sterilizing properties and capable of releasing it into the water to sterilize and disinfect the water body;
[0024] If chemicals need to be added to the chemical container, the container can be removed. The chemical is poured in through the top opening of the container, and the filled container is then reattached to the electric remote-controlled boat 1.
[0025] A solar light 2 is attached to the top of the electric remote-controlled boat 1. When used at night or in darkness, the solar light 2 can emit bright light, making the position of the remote-controlled boat easy to see.
[0026] The disinfection box comprises a chemical container and a bottom closure 3, the bottom closure 3 being attached to the underside of the chemical container and serving to open and close the release of the disinfectant contained in the chemical container;
[0027] At the upper end of the chemical container, several locking plates 4 are arranged evenly around its circumference. A mounting ring 5 is provided at the lower end of the electrically remote-controlled boat 1, and the inner wall of the mounting ring 5 is uniformly provided with several arcuate grooves 6. The number of locking plates 4 and arcuate grooves 6 is equal. At one end section of the arcuate groove 6 at the lower end of the mounting ring 5, there is an insertion slot 7 projecting into the arcuate groove 6. The locking plates 4 are inserted through the insertion slot 7 into the arcuate grooves 6, and after a rotational movement, the chemical container is firmly connected to the mounting ring 5 by the interaction of the locking plates 4 with the arcuate grooves 6.
[0028] Especially when mounting the chemical container, the locking plate 4 of the chemical container is aligned with the insertion slot 7 and the locking plate 4 is pushed to the bottom of the insertion slot 7. The chemical container is then rotated so that the locking plate 4 enters the arc-shaped groove 6. In this way, the chemical container is secured to the mounting ring 5.
[0029] The lower end of the chemical container is symmetrically provided with an arcuate adjustment groove 8. The arcuate adjustment groove 8 penetrates the bottom of the chemical container. A locking area 9 is arranged on the lower inner surface of the bottom closure 3, each locking area 9 comprising two symmetrical latches 10. The latches 10 engage in the corresponding arcuate adjustment grooves 8, allowing the bottom closure 3 to be attached to the lower end of the chemical container.
[0030] When the chemical container is removed, the two latches 10 of each locking area 9 can be moved towards each other, i.e., the upper ends of the two latches 10 are pulled together. This allows the latches 10 to be pushed out of the arc-shaped adjustment groove 8, thereby allowing the bottom closure 3 to be removed from the chemical container. This facilitates replacement or cleaning.
[0031] Symmetrically arranged dosing mechanisms are located on the side wall of the lower end of the chemical container and on the side wall of the bottom cap 3. When the bottom cap 3 is rotated, the dosing channel opens as soon as the dosing mechanism on the side wall of the chemical container and the dosing mechanism on the side wall of the bottom cap 3 are aligned, allowing the substance in the chemical container to be dispensed through the dosing mechanism. When the dosing mechanisms on the side wall of the chemical container and on the side wall of the bottom cap 3 are fully aligned, the dosing channel closes.
[0032] A dosing opening 11 is located at the lower end of the chemical container.
[0033] The dosing mechanism consists of several evenly spaced dosing slots 12;
[0034] The dosing slots 12 on the side wall of the chemical container penetrate the side wall of the chemical container;
[0035] The dosing slots 12 on the side wall of the bottom closure 3 penetrate the side wall of the bottom closure.
[0036] Particularly when rapid release of the agent is required, the bottom cap 3 is rotated so that the metering slots 12 on the side wall of the chemical container and the metering slots 12 on the side wall of the bottom cap 3 are aligned. This opens the metering channel, allowing the agent in the chemical container to be dispensed quickly through the metering slots 12. If the metering rate needs to be adjusted, the bottom cap 3 can be rotated so that the metering slots 12 on the side wall of the chemical container 2 and the metering slots 12 on the side wall of the bottom cap 3 are gradually offset. This narrows the metering channel and reduces the metering rate. The further the metering slots are offset, the smaller the metering channel becomes, thus regulating the metering rate.
[0037] If the dosing slots 12 on the side wall of the chemical container and the dosing slots 12 on the side wall of the bottom closure 3 are completely offset, the dosing channel is closed. In this case, the product is dispensed only through the dosing opening 6, thus reducing the dosing rate to a minimum. The dosing rate can therefore be adjusted according to the application requirements, which significantly simplifies handling.
[0038] Example 1, as shown in Fig. As shown in Figures 1-10, the chemical container consists of a combination of a left container 13 and a right container 14, wherein the locking plates 4 are arranged evenly at the upper end of both the left container 13 and the right container 14, and the bottom closure 3 is attached to the underside of the chemical container. In this case, the arc-shaped adjustment grooves 8 are located at the bottom of both the left container 13 and the right container 14. The dispensing slots 12 on the side wall of the chemical container are located at the lower end of the side walls of both the left container 13 and the right container 14.
[0039] One side of the left container 13 is rotatably connected to one side of the right container 14. Several locking hooks 15 are attached to the opposite side of the left container 13, while several locking plates 16 are provided on the opposite side of the right container 14. The locking plates 16 are each provided with locking grooves 15 which interact with the locking hooks 17. In particular, when the locking plates 16 are separated from the locking hooks 15, the right container 14 or the left container 13 can be rotated and opened, thus facilitating cleaning of the interior of the right container 14 and the left container 13. As shown in Fig. As shown in Figures 11-16, the chemical container is designed as an extendable container 18, wherein the locking plates 4 are arranged uniformly at the upper end of the extendable container 18 and the bottom closure 3 is attached to the underside of the extendable container 18;
[0040] Example 2, as in Fig. As shown in Figures 11-13, the extendable container 18 can, in particular, be configured as a combination of an upper container 20 and a lower container 21. The lower container 21 is slidably arranged within the upper container 20, allowing it to be inserted into the upper container 20. At the lower end of the upper container 20 and at the upper end of the lower container 21, matching locking rings 22 are provided, preventing the lower container 21 from sliding out of the upper container 20. In this configuration, the arc-shaped adjustment groove 8 is located at the bottom of the lower container 21, the metering slot 12 on the side wall of the chemical container is located on the lower side wall of the lower container 21, and the bottom closure 3 is positioned below the lower container 21.
[0041] To slide the containers together, the lower container 21 is simply pushed into the upper container 20. To extend the containers, the lower container 21 is pulled out of the upper container 20 until the locking ring 22 on the lower container 21 rests against the locking ring 22 on the upper container 20.
[0042] Example 3, as in Fig. As shown in Figures 14-16, the extendable container 18 can, in particular, be configured as a combination of an upper container part 23, a lower container part 24, and a rubber connecting piece 25. The rubber connecting piece 25 is connected at its upper end to the upper container part 23 and at its lower end to the lower container part 24. In this configuration, the arc-shaped adjustment groove 8 is located on the bottom of the lower container part 24, the metering slot 12 on the side wall of the chemical container is located on the lower side area of the lower container part 24, and the bottom closure 3 is located below the lower container part 24.
[0043] To collapse the containers, the lower container part 24 is pushed upwards, causing the rubber connector 25 to fold inwards and into the upper container part 23. Simultaneously, the lower container part 24 is also pushed into the upper container part 23, thus completing the collapsing process. To extend the containers, the lower container part 24 is pulled downwards, so that both the rubber connector 25 and the lower container part 24 are completely removed from the upper container part 23. Example 4, as shown in Fig. As shown in Figures 17-19, the chemical container is designed as a straight container 19 and is cylindrical overall. The locking plates 4 are evenly spaced at the top of the straight container 19. The bottom closure 3 is located below the straight container 19. In this configuration, the arc-shaped adjustment groove 8 is located at the bottom of the straight container 19, and the metering slot 12 on the side wall of the chemical container is located at the lower side of the straight container 19. In the concrete implementation of the present invention, the workflow
[0044] Example 1, as shown in Fig. As shown in Figures 1-10, the chemical container consists of a combination of the left container 13 and the right container 14;
[0045] If close-range disinfection is required, liquid agents can be poured into the left container 13 and the right container 14. The combination is then mounted on the electrically remote-controlled boat 1 using the locking plate 4 in conjunction with the mounting ring 5;
[0046] Depending on the disinfection requirements, the bottom closure 3 is turned, and the electric remote-controlled boat 1 is driven to the target water area to carry out the disinfection.
[0047] For large-area disinfection, the dosing slot 12 is aligned to enable a rapid release of the agents;
[0048] For precise disinfection, the overlap of the dosing slot 12 is adjusted to control the release rate;
[0049] Once the work is completed, the left container 13 and the right container 14 are removed. Then, the left container 13 and the right container 14 are opened, cleaned, and refilled with fresh materials.
[0050] If remote disinfection is required,
[0051] Depending on the disinfection requirements, the bottom closure 3 is turned, and the electric remote-controlled boat 1 is driven to the target water area to carry out the disinfection.
[0052] For large-area disinfection, the dosing slot 12 is aligned to enable a rapid release of the agents;
[0053] For precise disinfection, the overlap of the dosing slot 12 is adjusted to control the release rate;
[0054] Once the work is completed, the left container 13 and the right container 14 are removed. Then, the left container 13 and the right container 14 are opened, cleaned, and refilled with fresh materials.
[0055] A solar light 2 is attached to the upper end of the electric remote-controlled boat 1.
[0056] When used at night or in darkness, the solar light 2 can emit bright light, making the position of the remote-controlled boat easy to see. Example 2, as shown in Fig. As shown in Figures 11-13, the extendable container 18 in this case is designed as a combination of an upper container 20 and a lower container 21;
[0057] During use, the lower container 21 is pulled out of the upper container 20 so that the locking ring 22 on the lower container 21 fits snugly against the locking ring 22 on the upper container 20. Simultaneously, the locking ring 22 of the lower container 21 rests tightly against the inner wall of the upper container 20. This allows the lower container 21 to move vertically while also acting as a seal to prevent leakage. It also positions the lower container 21 so that it does not gradually slide back into the upper container 20 due to buoyancy and the movement of the boat's hull. If close-range disinfection is required, liquid agents can be poured into both the upper container 20 and the lower container 21.The combination is then mounted on the electric remote-controlled boat 1 using the locking plate 4 in conjunction with the mounting ring 5.
[0058] Depending on the disinfection requirements, the bottom closure 3 is turned, and the electric remote-controlled boat 1 is driven to the target water area to carry out the disinfection.
[0059] For large-area disinfection, the dosing slot 12 is aligned to enable a rapid release of the agents;
[0060] For precise disinfection, the overlap of the dosing slot 12 is adjusted to control the release rate;
[0061] Once the work is completed, the upper container 20 and the lower container 21 are removed. They are then cleaned and refilled with fresh materials.
[0062] If remote disinfection is required,
[0063] Depending on the disinfection requirements, the bottom closure 3 is turned, and the electric remote-controlled boat 1 is driven to the target water area to carry out the disinfection.
[0064] For large-area disinfection, the dosing slot 12 is aligned to enable a rapid release of the agents;
[0065] For precise disinfection, the overlap of the dosing slot 12 is adjusted to control the release rate;
[0066] Once the work is completed, the upper container 20 and the lower container 21 are removed. They are then cleaned and refilled with fresh materials.
[0067] A solar light 2 is attached to the upper end of the electric remote-controlled boat 1. When used at night or in darkness, the solar light 2 can emit bright light, making the position of the remote-controlled boat easy to see. Exemplary embodiment 3, as shown in Fig. As shown in Figures 1-10, the chemical container in this case is the extendable container 18. The extendable container 18 is designed as a combination of the upper container part 23, the lower container part 24, and the rubber connector 25. When close-range disinfection is required, the lower container part 24 and the rubber connector 25 are pulled out of the upper container part 23, so that the upper container part 23, the lower container part 24, and the rubber connector 25 are fully extended. Liquid agents can then be poured into the upper container part 23, the lower container part 24, and the rubber connector 25. The entire assembly is mounted on the electrically remote-controlled boat 1 by the locking plate 4 in conjunction with the mounting ring 5.
[0068] Depending on the disinfection requirements, the bottom closure 3 is turned, and the electric remote-controlled boat 1 is driven to the target water area to carry out the disinfection.
[0069] For large-area disinfection, the dosing slot 12 is aligned to enable a rapid release of the agents;
[0070] For precise disinfection, the overlap of the dosing slot 12 is adjusted to control the release rate;
[0071] Once the work is completed, the upper container 23, the lower container 24, and the rubber connecting piece 25 are removed. It is then cleaned and refilled with fresh materials.
[0072] If remote disinfection is required,
[0073] Depending on the disinfection requirements, the bottom closure 3 is turned, and the electric remote-controlled boat 1 is driven to the target water area to carry out the disinfection.
[0074] For large-area disinfection, the dosing slot 12 is aligned to enable a rapid release of the agents;
[0075] For precise disinfection, the overlap of the dosing slot 12 is adjusted to control the release rate;
[0076] After completion of the work, the upper container 23, the lower container 24 and the rubber connecting piece 25 are removed. It is then cleaned and refilled with fresh materials.
[0077] A solar light 2 is attached to the upper end of the electric remote-controlled boat 1. When used at night or in darkness, the solar light 2 can emit bright light, making the position of the remote-controlled boat easy to see. Exemplary embodiment 4, as shown in Fig. As shown in 1-10, the chemical container is designed as a straight container 19;
[0078] If close-range disinfection is required, liquid agents can be poured into the straight container 19. The combination is then mounted on the electrically remote-controlled boat 1 using the locking plate 4 in conjunction with the mounting ring 5;
[0079] Depending on the disinfection requirements, the bottom closure 3 is turned, and the electric remote-controlled boat 1 is driven to the target water area to carry out the disinfection.
[0080] For large-area disinfection, the dosing slot 12 is aligned to enable a rapid release of the agents;
[0081] For precise disinfection, the overlap of the dosing slot 12 is adjusted to control the release rate;
[0082] Once the work is completed, the straight container 19 will be removed. It will then be cleaned and refilled with fresh materials;
[0083] If remote disinfection is required,
[0084] Depending on the disinfection requirements, the bottom closure 3 is turned, and the electric remote-controlled boat 1 is driven to the target water area to carry out the disinfection.
[0085] For large-area disinfection, the dosing slot 12 is aligned to enable a rapid release of the agents;
[0086] For precise disinfection, the overlap of the dosing slot 12 is adjusted to control the release rate;
[0087] Once the work is completed, the straight container 19 will be removed. It will then be cleaned and refilled with fresh materials;
[0088] A solar light 2 is attached to the top of the electric remote-controlled boat 1. When used at night or in darkness, the solar light 2 can emit bright light, making the position of the remote-controlled boat easy to see.
[0089] In the description of the embodiments of the present invention, it should be noted that terms such as "center," "top," "bottom," "left," "right," "vertical," "horizontal," "inside," and "outside" refer to the directions or positions shown in the figures or to the arrangement customary when using the product. This information is provided solely to facilitate and simplify the description of the invention and should not be interpreted as indicating or limiting that the devices or components in question must necessarily have a specific orientation, be constructed in a particular direction, or be operated in a specific manner. Furthermore, the designations "first," "second," "third," etc., are used only for differentiation within the description and should not be interpreted as indicating relative importance.
[0090] Furthermore, terms like "horizontal," "vertical," or "hanging" do not mean that the components in question must be absolutely horizontal or hanging; they can be slightly inclined. "Horizontal" simply describes a direction that is more horizontally oriented compared to "vertical," without the structure necessarily having to be perfectly horizontal; a slight inclination is permissible.
[0091] In the description of embodiments of the present invention, the term "several" means that at least 2 units are meant.
[0092] In the description of the embodiments of the present invention, it should also be noted that, unless expressly stated otherwise or limited, terms such as "arrange," "assemble," "couple," or "connect" are to be interpreted broadly. This may include, for example, a permanent connection, a detachable connection, or a one-piece connection; it may be a mechanical or electrical connection; it may be a direct connection or an indirect connection via an intermediate medium; it may also relate to the internal continuity between two components. A person skilled in the art in the relevant field will be able to understand the specific meaning of these terms in the present invention depending on the specific application.
[0093] The foregoing description of the present invention and its embodiments is not limiting. The illustrations shown in the figures represent only one embodiment of the invention, and the actual structure is not limited to it. In summary: If a person skilled in the art is inspired by this description to develop, without any creative activity, structures or embodiments similar to the present technical solution, these will also fall within the scope of protection of the present invention, provided they do not depart from the basic concept of the invention.
Claims
[1] A remotely controlled boat with sterilization and disinfection function, characterized by , that: It includes an electric remote-controlled boat; The electric remote-controlled boat is equipped with a removable disinfection box designed to hold a disinfectant with a sterilizing effect and capable of to release this into the water in order to sterilize and disinfect the water; The electric remote-controlled boat has a solar light attached to its top. [2] A remotely controlled boat with sterilization and disinfection function according to claim 1, characterized by , that: The disinfection box comprises a chemical container and a bottom closure, the bottom closure being attached to the underside of the chemical container and serving to open and close the release of the disinfectant contained in the chemical container; At the top of the chemical container, several locking plates are evenly spaced around its circumference. A mounting ring is provided at the bottom of the electrically operated remote-controlled boat, and the inner wall of this ring is uniformly patterned with several arcuate grooves. At one end of the arcuate groove at the bottom of the mounting ring, there is a slot that extends into the arcuate groove. The locking plates are inserted through this slot into the arcuate groove, and after a rotational movement, the chemical container is securely fastened to the mounting ring by the interaction of the locking plates with the arcuate grooves. [3] A remotely controlled boat with sterilization and disinfection function according to claim 2, characterized by , that: The lower end of the chemical container is symmetrically provided with an arc-shaped adjustment groove that penetrates the bottom of the container. A locking area is arranged on the lower inner surface of the bottom closure, with each locking area comprising two symmetrical latches. The latches engage in the corresponding arc-shaped adjustment grooves, allowing the bottom closure to be secured to the lower end of the chemical container. Symmetrically arranged dosing mechanisms are located on the side wall of the lower end of the chemical container and on the side wall of the bottom cap. When the bottom cap is turned, the dosing channel opens as soon as the dosing mechanism on the side wall of the chemical container and the dosing mechanism on the side wall of the bottom cap are aligned, allowing the substance in the chemical container to be dispensed through the dosing mechanism. When the dosing mechanisms on the side wall of the chemical container and on the side wall of the bottom cap are fully aligned, the dosing channel closes. A dispensing opening is located at the bottom of the chemical container. [4] A remotely controlled boat with sterilization and disinfection function according to claim 3, characterized by , that: The dosing mechanism consists of several evenly spaced dosing slots; The dispensing slots on the side wall of the chemical container penetrate the side wall of the chemical container; The dispensing slots on the side wall of the bottom closure penetrate the side wall of the bottom closure. [5] A remotely controlled boat with sterilization and disinfection function according to claim 4, characterized by , that: The chemical container consists of a combination of left container and right container, wherein the locking plates are evenly spaced at the top of the left and right containers, and the bottom closure is attached to the underside of the chemical container; One side of the left container is rotatably connected to one side of the right container. Several fixing hooks are attached to the opposite side of the left container. While several locking plates are provided on the opposite side of the right container, the locking plates are each provided with locking grooves which interact with the fixing hooks. [6] A remotely controlled boat with sterilization and disinfection function according to claim 4, characterized by , that: The chemical container is designed as an extendable container, with the locking plates evenly arranged at the top of the extendable container and the bottom closure attached to the underside of the extendable container. [7] A remotely controlled boat with sterilization and disinfection function according to claim 4, characterized by , that: The chemical container is designed as a straight container, with the locking plates evenly arranged at the top of the straight container and the bottom closure attached to the underside of the straight container.