A motorized fish-finding platform system

Abstract

The utility model discloses a kind of motorized fish searching platform systems, by with advancing power assembly, fish luring device and fish searching device one group or multiple groups are detachably integrated on buoyancy body assembly, can let buoyancy body assembly corresponding advancing on water, while fish searching device detects that there is fish school in preset distance emergence, fish luring device starts fish luring working condition, so that fish school is close to fish luring device and corresponding gather, realize motorized, visual fish searching, fish luring and other functions, for this, the utility model has the characteristics of motorized fish searching, fish luring, and by increasing the function of motorization, give fish searching and fish luring operation flexible efficient characteristics, provide conditions for subsequent development of net fishing or rod fishing, and through the utility model can realize many people participate in fish searching, fish luring activity, and then reach the characteristics of crowd enjoys fishing, increase the interestingness of activity process, make it more have application prospect and popularization value.

Description

[Technical Field]

[0001] This utility model relates to the field of fishing equipment technology, and in particular to a motorized fish-finding platform system. [Background Technology]

[0002] In current fishing activities, most fishing enthusiasts are active along the banks of enclosed waterways such as reservoirs and fishponds, or they travel by boat to a predetermined location and then blind-fish using a rod, line, and bait. This traditional fishing method has some obvious limitations.

[0003] Firstly, when fishing from the shore using a hand rod and line, the success rate largely depends on the chosen fishing spot. Traditionally, the tip of the bank is considered the best spot; however, the number of such spots at a fishing location is limited, making it difficult for latecomers to find an ideal spot, thus impacting their fishing experience.

[0004] Secondly, even if there are boats available at fishing spots, the number of boats is inevitably limited and cannot meet the needs of all enthusiasts. Therefore, for many fishing enthusiasts, this problem has not been fundamentally solved.

[0005] Furthermore, even if boats can reach waters favorable for fishing, anglers still need to rely on baiting to create a feeding area, and then use a rod and line for blind fishing. In this situation, the success of fishing depends not only on the angler's luck but also closely on their fishing skills. If the waters where the angler is located are devoid of fish, then even the most skilled angler will find it difficult to catch anything.

[0006] In conclusion, existing fishing methods have certain limitations and cannot effectively meet the needs of fishing enthusiasts. There is an urgent need for a more efficient, flexible, and mobile platform and fishing method that is not limited by traditional fishing spots to improve the fishing experience and results. [Utility Model Content]

[0007] The purpose of this invention is to overcome the shortcomings of existing technologies and provide a motorized fish-finding platform system. By detachably integrating one or more of the propulsion power component, fish-attracting device, and fish-finding device onto a buoyancy component, the buoyancy component can move accordingly on the water. Simultaneously, when the fish-finding device detects a school of fish at a preset distance, the fish-attracting device activates its attracting mode, causing the school of fish to approach and gather. This achieves motorized and visual fish-finding and attracting functions. Therefore, this invention has the characteristics of motorized fish-finding and attracting, and by adding the motorized function, it endows the fish-finding and attracting operations with flexible and efficient characteristics, providing conditions for subsequent net fishing or rod fishing. Furthermore, this invention allows multiple people to participate in fish-finding and attracting activities, thereby achieving the characteristic of sharing the joy of fishing, increasing the fun of the activity, and making it more promising and valuable for promotion.

[0008] To solve the above-mentioned technical problems, this utility model provides a motorized fish-finding platform system, comprising:

[0009] Buoyancy component 1 can reliably float on water;

[0010] The propulsion power component 2 is detachably attached to the bottom or side of the buoyancy body component 1 and is used to drive the buoyancy body component 1 to move accordingly on the water.

[0011] Fish-finding device 3 is used to detect the presence of schools of fish underwater. The fish-finding device 3 is mounted on the buoyancy assembly 1, or the fish-finding device 3 is set separately from the buoyancy assembly 1 and can move relative to the buoyancy assembly 1 to perform fish-finding work.

[0012] Fish-attracting device 4 is used to induce fish to approach the fish-attracting device 4 and gather accordingly. The fish-attracting device 4 is configured to activate the fish-attracting mode when the fish detected by the fish-finding device 3 appears within a preset range, so that the fish gather towards the fish-attracting device 4.

[0013] As described above, in a motorized fish-finding platform system, the buoyancy assembly 1 includes a first buoyancy assembly 11 and a second buoyancy assembly 12. The first buoyancy assembly 11 and the second buoyancy assembly 12 are each equipped with a propulsion assembly 2. The second buoyancy assembly 12 is detachably connected to the front or rear end of the first buoyancy assembly 11. The second buoyancy assembly 12 can move on the water separately from the first buoyancy assembly 11.

[0014] As described above, in a motorized fish-finding platform system, the fish-finding device 3 and the fish-attracting device 4 are mounted on the second buoyancy assembly 12. When the second buoyancy assembly 12 is separated from the first buoyancy assembly 11, the fish-finding device 3 and the fish-attracting device 4 move on the water relative to the first buoyancy assembly 11 with the second buoyancy assembly 12 to perform fish-finding and fish-attracting operations.

[0015] As described above, in a mobile fish-finding platform system, the fish-finding device 3 is connected to a drone 30 via a wiring harness, so that the drone 30 pulls the fish-finding device 3 to move on the water. The drone 30 is configured to dock on the water surface or on the first buoyancy assembly 11 or the second buoyancy assembly 12. The fish-attracting device 4 is located on the second buoyancy assembly 12, which is configured to move according to the positioning coordinates issued by the fish-finding device 3 or the drone 30 to perform fish-attracting work.

[0016] As described above, in a mobile fish-finding platform system, the first buoyancy body component 11 is provided with a sunshade component 5 for a drone 30 to dock, and the sunshade component 5 is configured to lock and limit the drone 30 docked thereon.

[0017] As described above, in a motorized fish-finding platform system, the buoyancy assembly 1 is composed of inflatable and deflated airbags 111 and buoyancy plates 112 stacked vertically and connected by a load-bearing structure assembly 113. The load-bearing structure assembly 113 includes corner guards 1131, a front anti-collision bar assembly 1132, a rear anti-collision bar assembly 1133, a side anti-collision bar assembly 1134, and restraint straps 1135. The corner guards 1131, front anti-collision bar assembly 1132, rear anti-collision bar assembly 1133, and side anti-collision bar assembly 1134 are detachably connected to form a restraint space 1130. The stacked airbags 111 and buoyancy plates 112 are kept constrained within the constraint space 1130, and the adjacent corner guards 1131 are connected by a constraint strap 1135; the fish-finding device 3 is located on the bottom side of the front anti-collision bar group 1132, and a flip-locking mechanism 41 is provided between the fish-attracting device 4 and the side anti-collision bar group 1134. The flip-locking mechanism 41 is configured such that the fish-attracting device 4 flips upward to a preset angle and is positioned and locked, so that the feeding port of the fish-attracting device 4 faces upward, and the fish-attracting device 4 flips downward to a preset angle and is positioned and locked.

[0018] As described above, in a motorized fish-finding platform system, the buoyancy body component 1 is composed of multiple hollow, rigid buoyancy boxes 10 spliced ​​together. The propulsion power component 2 and the fish-attracting device 4 are respectively detachably installed at the bottom of the buoyancy box 10. The inner cavity of the buoyancy box 10 is filled with buoyancy foam 100 along the circumference and a storage space is formed in the middle.

[0019] As described above, in a mobile fish-finding platform system, the fish-finding device 3 is connected to a drone 30 via a wiring harness, so that the drone 30 pulls the fish-finding device 3 to move on the water. The drone 30 is configured to dock on the water surface or on the buoyancy assembly 1. The buoyancy assembly 1 is configured to move according to the positioning coordinates issued by the fish-finding device 3 or the drone 30 to perform fish-attracting work.

[0020] As described above, in a motorized fish-finding platform system, the first buoyancy assembly 11 is composed of inflatable and deflated airbags 111 and buoyancy plates 112 stacked vertically and connected by a load-bearing structure assembly 113. The load-bearing structure assembly 113 includes corner guards 1131, a front anti-collision bar assembly 1132, a rear anti-collision bar assembly 1133, a side anti-collision bar assembly 1134, and restraint straps 1135. The corner guards 1131, the front anti-collision bar assembly 1132, the rear anti-collision bar assembly 1133, and the side anti-collision bar assembly 1134 are detachably connected to form a restraint space 1130 to constrain the upper and lower layers. The stacked airbags 111 and buoyancy plates 112 are kept constrained within the constraint space 1130, and the adjacent corner guards 1131 are connected by constraint straps 1135; the second buoyancy body assembly 12 is composed of a single hollow rigid buoyancy box 10, the inner cavity of the buoyancy box 10 is filled with buoyancy foam 100 along the circumference and a storage space is formed in the middle, the fish attracting device 4 and the propulsion power assembly 2 are detachably connected to the bottom of the buoyancy box 10 of the second buoyancy body assembly 12, and the fish finding device 3 is detachably provided on the side of the buoyancy box 10 of the second buoyancy body assembly 12.

[0021] As described above, in a motorized fish-finding platform system, a flip-locking mechanism 41 is provided between the driving power component 2 and the side anti-collision bar group 1134. The flip-locking mechanism 41 is configured such that the driving power component 2 flips upward to a preset angle and is positioned and locked, and the driving power component 2 flips downward and is submerged in the water to a preset angle and is positioned and locked.

[0022] As described above, in a motorized fish-finding platform system, the flipping locking mechanism 41 includes a flipping connecting seat 411 and a flipping arm 412. The flipping connecting seat 411 is connected to the side anti-collision bar assembly 1134. One end of the flipping arm 412 is hinged to the middle of the flipping connecting seat 411. The other end of the flipping arm 412 is provided with a flipping locking mechanism 42 for detachably connecting to the traveling power assembly 2 or the fish-attracting device 4. A flipping locking mechanism 43 is provided between the flipping arm 412 and the flipping connecting seat 411 for locking the flipping arm 412 onto the flipping connecting seat 411 when the flipping arm 412 is flipped downward and upward relative to the flipping connecting seat 411 to a preset angle.

[0023] As described above, in a motorized fish-finding platform system, the first buoyancy assembly 11 is composed of multiple hollow, rigid buoyancy boxes 10 spliced ​​together, and the propulsion assembly 2 is detachably connected to the bottom of the corresponding buoyancy box 10 of the first buoyancy assembly 11; the second buoyancy assembly 12 is composed of a single hollow, rigid buoyancy box 10, the inner cavity of the buoyancy box 10 is filled with buoyancy foam 100 along the circumference and a storage space is formed in the middle, the fish-attracting device 4 and the propulsion assembly 2 are detachably connected to the bottom of the buoyancy box 10 of the second buoyancy assembly 12, and the fish-finding device 3 is detachably provided on the side of the buoyancy box 10 of the second buoyancy assembly 12.

[0024] As described above, in a motorized fish-finding platform system, the buoyancy box 10 of the second buoyancy component 12 is provided with a detachable connection mechanism 7 between the front end and / or rear end of the first buoyancy component 11, so that the second buoyancy component 12 can be docked and connected to the first buoyancy component 11.

[0025] As described above, in a motorized fish-finding platform system, the bottom of the buoyancy box 10 is provided with a flow guide groove 101 along its traveling direction, and the flow guide grooves 101 of the buoyancy boxes 10 spliced ​​together in the traveling direction are interconnected.

[0026] As described above, in a motorized fish-finding platform system, the buoyancy box 10 of the second buoyancy body assembly 12 is detachably connected to a water-dividing head 102 at the front.

[0027] As described above, in a motorized fish-finding platform system, the airbag 111 and the buoyancy plate 112 are provided with a through hole 13. A flexible net trap 131 that can be inserted into the water is snapped into the through hole 13. The flexible net trap 131 is open at the top and bottom and has a structure that is wider at the top and narrower at the bottom. A rigid ring 132 is connected to the top and bottom openings of the flexible net trap 131. Several pull straps 133 are connected circumferentially between the rigid rings 132 arranged vertically. Each pull strap 133 is provided with several pull strap buckles 1331 that can be hooked to the rigid rings 132 at the top opening of the flexible net trap 131 from top to bottom. The pull straps 133 are configured to allow the flexible net trap 131 to hang down completely and open the bottom opening. The pull straps 133 are also raised to make the lower end of the flexible net trap 131 fold inward and place it in the inner cavity of the flexible net trap 131, forming a circular space 134 for storing counterweights.

[0028] As described above, in a motorized fish-finding platform system, a rigid baffle 135 is also provided inside the flexible net trap 131. The rigid baffle 135 is connected to a baffle suspension rope 136 that can control its up and down movement inside the flexible net trap 131. The baffle suspension rope 136 is attached to a rigid ring 132 at the opening of the flexible net trap 131. The flexible net trap 131 and the rigid baffle 135 placed inside it form a storage space.

[0029] As described above, in a motorized fish-finding platform system, the buoyancy body component 1 is provided with a support component 14, and the front end and / or rear end of the support component 14 extends with an end suspension bracket 15. The end suspension bracket 15 is provided with an end winch component 16, and the end winch component 16 includes a lifting and hanging rope 161. Each lifting and hanging rope 161 has multiple hanging rope segments 162 forked at its lower end. The hanging rope segments 162 at the lower end of the same lifting and hanging rope 161 are detachably connected to the suspended object so that the object can be lifted and lowered smoothly.

[0030] As described above, in a motorized fish-finding platform system, the end suspension bracket 15 is provided with end winch assemblies 16 on both the left and right sides. Each lifting and hanging rope 161 has two hanging rope segments 162 forked at its lower end. The hanging rope segments 162 of different lifting and hanging ropes 161 located on the same end of the bracket assembly 14 are configured to be detachably connected to a hanging object at the same time.

[0031] As described above, in a motorized fish-finding platform system, the buoyancy assembly 1 is provided with a support assembly 14, and a side suspension bracket 17 extends from the left and / or right side of the support assembly 14. A net trap assembly 6, which can be raised and lowered relative to the buoyancy assembly 1, is suspended on the side suspension bracket 17. A net trap winch assembly 18 is provided on the side suspension bracket 17 for controlling the raising and lowering of the net trap assembly 6 relative to the buoyancy assembly 1; and / or, a rod fishing assembly is provided on the buoyancy assembly 1.

[0032] As described above, in a motorized fish-finding platform system, the net trap assembly 6 includes a rigid net trap section 61 and a flexible net trap section 62 connected to the lower end of the rigid net trap section 61. The upper end of the rigid net trap section 61 is directly or indirectly connected to the net trap winch assembly 18, and the lower end of the flexible net trap section 62 is connected to a rigid net trap support ring 63. The net trap assembly 6 is configured such that at least the lower end of the flexible net trap section 62 is lifted and detached from the water surface during the movement of the buoyancy body assembly 1.

[0033] As described above, in a motorized fish-finding platform system, the buoyancy body assembly 1 is provided with a support assembly 14. The support assembly 14 includes a vertical column 141 whose lower end is detachably connected to the buoyancy body assembly 1. The side of the vertical column 141 is provided with a column extension connection part 1411 for extension connection along the vertical direction. The top of the vertical column 141 is provided with a sunshade assembly 5.

[0034] As described above, in a motorized fish-finding platform system, the sunshade top assembly 5 includes a sunshade plate 51 that is provided at the top of the vertical column 141 and is hollowed out. The front or rear end of the sunshade top assembly 5 and located between the tops of the two vertical columns 141 are provided with a sunshade cloth assembly 52 that can cover the upper surface of the sunshade plate 51.

[0035] As described above, in a motorized fish-finding platform system, the buoyancy assembly 1 is provided with a support assembly 14. The support assembly 14 includes a vertical column 141 whose lower end is detachably connected to the buoyancy assembly 1. The side of the vertical column 141 is provided with a column extension connection part 1411 for extension connection along the vertical direction. A height-adjustable edging assembly 19 is detachably provided between two adjacent vertical columns 141. The edging assembly 19 includes a flexible and foldable edging body 191. The end of the edging body 191 is connected to an edging connecting block 192. The edging connecting block 192 is connected and cooperates with the column extension connection part 1411.

[0036] Compared with the prior art, the present invention has the following advantages:

[0037] 1. This utility model enables the buoyancy component to move quickly and maneuverably to different waters through the propulsion component, adapting to various complex fishing environments and improving the flexibility of fishing. Secondly, the fish-finding device can detect the presence of fish in the surrounding waters, quickly and accurately locating the fish and avoiding wasting time in areas without fish. It achieves a mobile and visual fish-finding function, significantly improving fishing efficiency. At the same time, the fish-attracting device effectively attracts and stabilizes fish, and allows fish to gather in the target area where the fish-attracting device moves, achieving mobile and visual fish-finding and fish-attracting functions. Therefore, this utility model has the characteristics of mobile fish-finding and fish-attracting. Moreover, by adding the function of mobility, it gives the fish-finding and fish-attracting operation flexible and efficient characteristics, providing conditions for subsequent net fishing or rod fishing. Furthermore, this utility model allows multiple people to participate in fish-finding and fish-attracting activities, thereby achieving the characteristic of sharing the fun of fishing, increasing the fun of the activity process, and making it more promising and valuable for promotion.

[0038] 2. The buoyancy component of the platform body of this utility model can be separated from the fish-attracting device and the fish-finding device. The fish-attracting device and the fish-finding device can move independently relative to the buoyancy component of the platform body. According to different scenario needs, the buoyancy component, the fish-attracting device and the fish-finding device of the platform body can move and operate in different water environments to realize the functions of mobile fish finding, attracting fish and fishing, further increasing the mobility and flexibility of this utility model.

[0039] 3. This utility model uses a drone to pull a fish-finding device to travel on the water to detect the presence of underwater fish. It can quickly reach the designated detection area, greatly shortening the response time. This not only improves the efficiency and accuracy of detection, but also enhances the flexibility and safety of the operation.

[0040] 4. This utility model of a motorized fish-finding platform system, through its motorized fish-finding device, plays a pioneering role in net fishing and rod fishing, effectively improving the efficiency and effectiveness of net fishing and rod fishing, and increasing the enjoyment of the process, making it more popular.

[0041] 5. This utility model uses a detachable structural component to connect an inflatable airbag and a buoyancy plate to form the buoyancy body component of the platform body. This effectively optimizes the load distribution of the buoyancy body component, increases the stability and reliability of the connection, and makes it convenient for people to carry and store when going out due to the detachable connection. Furthermore, the composite superposition of the buoyancy plate and the airbag has the functions of anti-collision, anti-scratching, and anti-sinking, ensuring safety and reliability during use on water.

[0042] 6. The fish attracting device and the side anti-collision bar assembly are connected by a flip-locking mechanism, which allows the fish attracting device to be locked when flipped up or down to a preset angle. Therefore, the fish attracting device can be flipped up and positioned relative to the side anti-collision bar assembly without disassembly, and the bait can be replaced. Thus, it has the feature of convenient operation.

[0043] 7. The buoyancy box is filled with buoyancy foam along its circumference. Regardless of whether the buoyancy box is damaged or perforated, it can still provide reliable buoyancy support, thus enhancing its safety and durability, as well as its anti-collision and anti-sinking characteristics.

[0044] 8. Because the buoyancy box is made of rigid materials, users can directly pull it ashore when going ashore, so it is convenient to use; moreover, the buoyancy box can be manufactured in a standardized manner, which not only facilitates assembly, but also reduces the overall manufacturing cost.

[0045] 9. This utility model has a flow guide groove at the bottom of the buoyancy tank along its direction of travel, which can effectively guide the water flow along a specific path, reduce the water resistance encountered by the buoyancy tank during travel, thereby reducing energy consumption, giving it a strong endurance, and making the buoyancy tank travel more smoothly and stably in the water.

[0046] 10. This utility model utilizes the mobility, flexibility, and quick assembly and disassembly of the motorized fish-finding platform, allowing it to be moved and selectively deployed to different fishing areas, especially open waters, to achieve efficient, accurate, and flexible fish-finding, attracting, and fishing operations. Moreover, this utility model method can increase people's enjoyment of fishing and their desire to share their achievements, enriching people's activities and having broad application prospects and promotional value. [Attached Image Description]

[0047] The specific embodiments of this utility model will be further described in detail below with reference to the accompanying drawings, wherein:

[0048] Figure 1 This is a perspective view of an embodiment of the present utility model.

[0049] Figure 2This is a side view of an embodiment of the present invention.

[0050] Figure 3 This is a bottom view of an embodiment of the present invention.

[0051] Figure 4 This is an exploded view of an embodiment of the present invention.

[0052] Figure 5 This is a perspective view of the buoyancy box in this utility model.

[0053] Figure 6 This is an exploded view of the buoyancy box in this utility model.

[0054] Figure 7 This is a side view of the second buoyancy body assembly in one embodiment of the present invention.

[0055] Figure 8 This is a rear view of the second buoyancy body assembly in one embodiment of the present invention.

[0056] Figure 9 This is a bottom view of the second buoyancy body assembly in one embodiment of the present invention.

[0057] Figure 10 This is a cross-sectional view of the second buoyancy body component in one embodiment of the present invention.

[0058] Figure 11 This is a perspective view of a fish-attracting device in one embodiment of the present invention.

[0059] Figure 12 This is an exploded view of a fish-attracting device in one embodiment of the present invention.

[0060] Figure 13 This is a perspective view of the propulsion power component in one embodiment of the present invention.

[0061] Figure 14 This is a perspective view of a fish-finding device in one embodiment of the present invention.

[0062] Figure 15 This is one of the perspective views of a drone docked on the second buoyancy body component in one embodiment of the present invention.

[0063] Figure 16 This is a rear view of the second buoyancy body assembly in one embodiment of the present invention, with a drone docked on it.

[0064] Figure 17 This is an exploded view of a second buoyancy body component with a drone docked on it, according to one embodiment of the present invention.

[0065] Figure 18 for Figure 16 An enlarged diagram of A in the diagram.

[0066] Figure 19 This is a second perspective view of a second buoyancy body component in one embodiment of the present invention, showing a drone docked on it.

[0067] Figure 20 This is one of the perspective views of a drone pulling a fish-finding device in one embodiment of this utility model.

[0068] Figure 21 for Figure 20 An exploded image of a Chinese drone.

[0069] Figure 22 This is the second perspective view of a drone pulling a fish-finding device in one embodiment of this utility model.

[0070] Figure 23 for Figure 22 An exploded image of a Chinese drone.

[0071] Figure 24 This is the third perspective view of a drone pulling a fish-finding device in one embodiment of this utility model.

[0072] Figure 25 This is the fourth perspective view of a drone pulling a fish-finding device in one embodiment of this utility model.

[0073] Figure 26 This is a perspective view of another embodiment of the present utility model.

[0074] Figure 27 This is a rear view of another embodiment of the present invention.

[0075] Figure 28 This is one of the exploded views of another embodiment of the present invention.

[0076] Figure 29 This is a second exploded view of another embodiment of the present invention.

[0077] Figure 30 This is a cross-sectional view of the flip-locking mechanism in another embodiment of the present invention.

[0078] Figure 31 This is one of the exploded views of the flip-locking mechanism in another embodiment of the present invention.

[0079] Figure 32 This is the second exploded view of the flipping locking mechanism in another embodiment of the present invention.

[0080] Figure 33 This is a cross-sectional view of a flexible mesh trap in another embodiment of the present invention.

Detailed Implementation Methods

[0081] The following is in conjunction with the appendix Figure 1-33The embodiments of this utility model will be described in detail.

[0082] like Figure 1-33 As shown, this utility model discloses a motorized fish-finding platform system, comprising a buoyancy assembly 1, a propulsion assembly 2, a fish-finding device 3, and a fish-attracting device 4. The buoyancy assembly 1 reliably floats on the water; the propulsion assembly 2 is detachably attached to the bottom or side of the buoyancy assembly 1 to drive the buoyancy assembly 1 to move accordingly on the water; the fish-finding device 3 is used to detect the presence of schools of fish underwater, and is either mounted on the buoyancy assembly 1 or separately mounted relative to the buoyancy assembly 1, allowing relative movement to perform fish-finding operations; the fish-attracting device 4 is used to induce schools of fish to approach and gather around it, and is mounted on the buoyancy assembly 1, configured to activate when a school of fish detected by the fish-finding device 3 appears within a preset range, causing the school of fish to gather towards the fish-attracting device 4. This invention enables the buoyancy component to move rapidly and maneuverably to different waters through a propulsion component, adapting to various complex fishing environments and improving fishing flexibility. Secondly, the fish-finding device can detect the presence of fish in the surrounding waters, quickly and accurately locating fish schools and avoiding wasting time in fish-free areas. This achieves both maneuverability and visualization in fish finding, significantly improving fishing efficiency. Simultaneously, the fish-attracting device effectively attracts and guides fish to the target waters, increasing fish concentration in the target area and achieving a maneuverable fish-attracting function. Therefore, this invention possesses the characteristics of maneuverable fish finding and attracting. Furthermore, by adding maneuverability, it endows fish finding and attracting operations with flexibility and efficiency, providing conditions for subsequent net fishing or rod fishing. Moreover, this invention allows multiple people to participate in fish finding and attracting activities, thus achieving the characteristic of shared fishing enjoyment, increasing the fun of the activity and making it more promising and valuable for promotion.

[0083] To improve the fish-attracting effect, the fish-attracting device 4 includes one or more combinations of bait delivery components, sonic fish attractors, fish-attracting lights, and fish-attracting sachets.

[0084] like Figure 12 As shown, the bait dispensing assembly preferably adopts a horizontal structure to reduce resistance during movement. It includes a dispensing housing 40 with an installation opening at one end and a dispensing outlet 406 at the other. A mounting base 404 is detachably connected to the installation opening end of the dispensing housing 40. A dispensing drive motor 401 is mounted on the mounting base 404. A dispensing drive shaft 402, driven by the dispensing drive motor 401, is located inside the dispensing housing 400. A pressing dispensing component 403 is located at one end of the dispensing drive shaft 402 within the inner cavity of the dispensing housing 400. During the dispensing process, the dispensing drive motor drives the dispensing drive shaft to rotate accordingly, causing the pressing dispensing component to squeeze the bait inside the dispensing housing towards the dispensing outlet and scatter the bait outwards.

[0085] like Figure 11 As shown, the bottom side of the feeding housing 40 is provided with a feeding port 407, and a feeding cover is provided at the feeding port 407 for opening or closing the feeding port 407.

[0086] To improve the accuracy of detection and the visual fishing experience, the fish-finding device 3 includes one or more combinations of sonar detectors, fish school detectors, and cameras.

[0087] In this invention, the propulsion power component 2 is an electric propulsion unit. The structure of this electric propulsion unit can be found in Chinese patent application number […].

[0088] The technical solutions for the thrusters in CN202120572860.8 and CN202120570961.1 will not be elaborated here.

[0089] The buoyancy component 1 can serve as the platform body independently, or it can be divided into a large and small or a large and many small parent-child structure. Whether the buoyancy component 1 serves as the platform body independently, or the buoyancy component 1 is in a parent-child structure with the parent structure serving as the platform body, for example... Figure 1 , 26 As shown, the platform body is equipped with a support assembly 14, and a side suspension support 17 extends from the left and / or right side of the support assembly 14. A net trap assembly 6, which can be raised and lowered relative to the buoyancy body assembly 1, is suspended on the side suspension support 17. A net trap winch assembly 18 for controlling the raising and lowering of the net trap assembly 6 relative to the buoyancy body assembly 1 is provided on the side suspension support 17. The net trap assembly 6 includes a rigid net trap section 61 and a flexible net trap section 62 connected to the lower end of the rigid net trap section 61. The upper end of the rigid net trap section 61 is directly or indirectly connected to the net trap winch assembly 18. The lower end of the flexible net trap section 62 is connected to a rigid net trap support ring 63. The net trap assembly 6 is configured such that at least the lower end of the flexible net trap section 62 is lifted and detached from the water surface during the movement of the buoyancy body assembly 1.

[0090] like Figure 26-28 As shown, the platform body is also equipped with a rod and fishing assembly, which includes a rod and fishing seat on the buoyancy body assembly 1. The rod and fishing seat has a rod and fishing storage space for storing rods and fishing items. People can choose to fish with nets or rods as needed.

[0091] like Figure 1 , 26As shown, to enable the platform body to have strong functional expansion capabilities and scene adaptability, the support assembly 14 includes a vertical column 141 whose lower end is detachably connected to the buoyancy body assembly 1. The side of the vertical column 141 is provided with a column expansion connection part 1411 for expansion connection along the vertical direction, and the top of the vertical column 141 is provided with a sunshade assembly 5. Preferably, the column expansion connection part 1411 is a T-shaped connection groove provided in the height direction of the vertical column.

[0092] like Figure 26-28 As shown, to facilitate user adjustment of the height of the edge assembly according to different usage scenarios and to allow for expansion connections using the vertical columns 141 as needed, an adjustable edge assembly 19 is detachably provided between two adjacent vertical columns 141. The edge assembly 19 includes a flexible, foldable edge body 191, with an edge connecting block 192 connected to the end of the edge body 191. The edge connecting block 192 connects and engages with the column expansion connection portion 1411. The column expansion connection portion 1411 includes, but is not limited to, a T-shaped connecting groove, and the edge connecting block 192 is a T-shaped connecting block that engages and engages with the T-shaped connecting groove.

[0093] When the buoyancy assembly 1 is in the form of a mother-daughter structure, it includes a first buoyancy assembly 11 and a second buoyancy assembly 12. The first buoyancy assembly 11 is the mother structure and serves as the main body of the platform, which can carry people, while the second buoyancy assembly 12 is the daughter structure and cannot carry people. Specifically, the second buoyancy assembly 12 is detachably connected to the front or rear end of the first buoyancy assembly 11. Both the first and second buoyancy assemblies 11 and 12 are equipped with a propulsion assembly 2, allowing the second buoyancy assembly 12 to move on the water relative to the first buoyancy assembly 11. When the second buoyancy assembly 12 is connected to the front end of the first buoyancy assembly 11, it acts as a water divider, reducing resistance during movement and stabilizing the direction of travel. As a fish-finding solution, the fish-finding device 3 and fish-attracting device 4 are mounted on the second buoyancy assembly 12. When the second buoyancy assembly 12 is separated from the first buoyancy assembly 11, the fish-finding device 3 and fish-attracting device 4 move on the water relative to the first buoyancy assembly 11 with the second buoyancy assembly 12 to perform fish-finding and fish-attracting operations. Figure 7-10 As shown.

[0094] As another fish-finding solution, the fish-finding device 3 is connected to a drone 30 via a wiring harness, so that the drone 30 pulls the fish-finding device 3 to move on the water. The drone 30 is configured to dock on the water surface or on the buoyancy assembly 1. The buoyancy assembly 1 is configured to move according to the positioning coordinates issued by the fish-finding device 3 or the drone 30 to carry out fish-attracting work.

[0095] like Figure 15-25 As shown, the drone 30 is configured to dock on the water surface or on the first buoyancy assembly 11 or the second buoyancy assembly 12. The first buoyancy assembly 11 and / or the second buoyancy assembly 12 are equipped with a charging interface for the drone 30, and the interface is configured to have charging and discharging functions, allowing for timely charging of the drone to improve its endurance and providing more possibilities for functional expansion of the buoyancy assembly. The fish-attracting device 4 is located on the second buoyancy assembly 12, which is configured to move according to the positioning coordinates issued by the fish-finding device 3 or the drone 30 to perform fish-attracting operations. This invention uses a drone to pull a fish-finding device on the water to detect the presence of underwater fish, quickly reaching the designated detection area, greatly shortening the response time, improving detection efficiency and accuracy, and enhancing operational flexibility and safety. In this embodiment, the drone can be a DJI M300RTK drone, which is equipped with satellite positioning and communication and main control unit recording satellite coordinate positioning function, automatic cruise function, automatic return function when power is low, etc.

[0096] like Figure 20-25 As shown, the drone 30 has support legs 302 connected to its bottom. The two support legs 302 are arranged in an outward V-shape. Each support leg 302 has a support crossbar 303 connected to its lower end. A buoyancy body 304 is detachably connected to the support crossbar 303. The buoyancy body 304 is made of polyurethane foam or EPS buoyancy foam, etc. This buoyancy body can provide buoyancy for the drone, enabling it to float when it falls into water, preventing it from sinking to the bottom, protecting the drone from water damage, and improving the safety, reliability, and service life of the equipment. It also allows the drone to dock stably on the water surface.

[0097] like Figure 20-23 As shown, the buoyancy body 304 is provided with a mounting boss, and the mounting boss is provided with a crossbar through hole 3041 for the support crossbar 303 to pass through. The mounting boss and the support crossbar 303 are respectively provided with mounting lock holes for connecting rods to pass through simultaneously to lock the two relative to each other, which has the characteristics of convenient disassembly and replacement.

[0098] like Figure 1 , 2 As shown in 4.22-28, regardless of whether the buoyancy component 1 is a standalone platform body or whether the buoyancy component 1 is in a parent-child structure with the parent structure—the first buoyancy component—as the platform body, the platform body is equipped with a sunshade component 5 for the drone 30 to dock. The sunshade component 5 is configured to lock and limit the drone 30 docked on it. Figure 1 , 26As shown, the sunshade assembly 5 includes a sunshade panel 51 with a hollowed-out design, located at the top of the vertical column 141. The upper surface of the sunshade panel 51 is flat, and a plug-in positioning rod 301 is detachably connected to the drone 30. Figure 23 As shown, the upper end of the insertion positioning rod 301 is threadedly connected to the drone 30. The lower end of the insertion positioning rod 301 passes through the sun visor 51 and has a connecting rod segment 3011 that can rotate relative to the lower end of the insertion positioning rod 301. The connecting rod segment 3011 has a connecting opening slot for the lower end of the insertion positioning rod 301 to insert and avoid interference. When the drone needs to be parked, the flexible sunshade cloth on the upper surface of the sun visor 51 is rolled up. After the drone is parked on the sun visor 51, the insertion positioning rod 301 is inserted through the hollow positioning hole of the sun visor 51, so that the upper end of the insertion positioning rod 301 is stably connected to the drone. Then, the connecting rod segment 3011 is rotated relative to the insertion positioning rod 301, so that the connecting rod segment 3011 is laterally locked under the hollow positioning hole, thus restricting the upward movement of the insertion positioning rod 301, thereby locking and positioning the parked drone.

[0099] like Figure 1 , 26 As shown, the sunshade top assembly 5 has a sunshade cloth assembly 52 located at its front or rear end and between the tops of the two vertical columns 141, which can cover the upper surface of the sunshade panel 51. The sunshade cloth assembly 52 includes, but is not limited to, a sunshade cloth retracting rod shaft located at the front or rear end of the sunshade top assembly 5 and a flexible sunshade cloth wound around the sunshade cloth retracting rod shaft. The free end of the flexible sunshade cloth is connected to a pull rope so that the angler can pull it to unfold the flexible sunshade cloth to cover the upper surface of the sunshade panel 51. When a drone needs to be parked on the sunshade panel 51, the sunshade cloth retracting rod shaft rotates to automatically retract the flexible sunshade cloth by means of electricity or spring force, thereby releasing the cover on the upper surface of the sunshade panel 51.

[0100] like Figure 26-29 As shown, when the buoyancy body assembly 1 is used independently as the main body of a platform capable of carrying people, in the first specific embodiment, it is composed of inflatable airbags 111 and buoyancy plates 112 stacked vertically and connected by a force-bearing structure assembly 113. The force-bearing structure assembly 113 includes corner guards 1131, a front anti-collision bar assembly 1132, a rear anti-collision bar assembly 1133, a side anti-collision bar assembly 1134, and restraint straps 1135. The corner guards 1131, the front anti-collision bar assembly 1132, the rear anti-collision bar assembly 1133, and the side anti-collision bar assembly 1134 are detachably connected to form a restraint space 1130, so as to keep the stacked airbags 111 and buoyancy plates 112 constrained within the restraint space 1130. The two adjacent corner guards 1131 are connected to the restraint straps 1135. This invention uses a load-bearing structural component to connect an inflatable airbag and a buoyancy plate to form the buoyancy body component, which can effectively optimize the load distribution of the buoyancy body component and increase the stability and reliability of the connection between the buoyancy body components.

[0101] Furthermore, the airbag 111 is composed of at least two independent structures stacked one on top of the other. Preferably, the height of the upper airbag is significantly greater than that of the lower airbag. When the lower airbag is damaged and leaks air, the upper airbag can still be used and provide sufficient buoyancy to effectively achieve the anti-sinking function and ensure safe and reliable use.

[0102] This invention features a buoyancy plate at the bottom of the airbag. After the airbag is inflated, the buoyancy plate is constrained and fixed to the bottom of the airbag by a load-bearing structural component. On one hand, this effectively protects the bottom of the airbag, preventing air leakage due to scratches during use. Furthermore, when the platform is being brought ashore, the user can use the buoyancy plate's support and protection to directly pull the platform ashore. On the other hand, given a certain thickness and volume, the buoyancy plate can maximize the buoyancy support provided to the airbag to meet greater load requirements.

[0103] The corner protectors and anti-collision bars work together to effectively protect the airbag in all directions, avoiding the risk of air leakage during a collision and further improving safety. Since the corner protectors, anti-collision bars and airbag are all detachable, they are convenient for users to install and remove and carry when going out.

[0104] In this invention, the corner protectors are held together by the pulling of the restraint straps 1135 and the support of the anti-collision bar assembly, ensuring that the corner protectors are stably and reliably restrained to the sides of the airbag and buoyancy plate, while reliably restraining the airbag and buoyancy plate within the restraint space. The corner protectors serve both to prevent collisions and sinking, and to connect and bear forces.

[0105] like Figures 29-31 As shown, for ease of operation and feeding, the fish-finding device 3 is located on the bottom side of the front anti-collision bar assembly 1132. A flip-locking mechanism 41 is provided between the fish-attracting device 4 and the side anti-collision bar assembly 1134. The flip-locking mechanism 41 is configured such that the fish-attracting device 4 flips upward to a preset angle and is locked in place, so that the feeding port 407 of the fish-attracting device 4 faces upward, and the fish-attracting device 4 flips downward to a preset angle and is locked in place. When bait needs to be added, the locking state of the flip-locking mechanism 41 is released, allowing it to flip upward, thus making the feeding port 407 of the fish-attracting device 4 face upward. After feeding and closing, the locking state of the flip-locking mechanism 41 is released, and under the action of gravity, it automatically flips downward, causing the fish-attracting device 4 to sink into the water and automatically lock.

[0106] like Figure 1-5As shown in Figure 10, when the buoyancy assembly 1 serves as the main body of a manned platform, in a second specific embodiment, the buoyancy assembly 1 is constructed by splicing together multiple hollow, rigid buoyancy boxes 10. The buoyancy boxes can be made of HDPE material. The propulsion component 2 and the fish-attracting device 4 are detachably mounted on the bottom of the buoyancy box 10. The inner cavity of the buoyancy box 10 is filled with buoyancy foam along its circumference, forming a storage space in the middle. Filling the hollow, rigid buoyancy box with buoyancy foam ensures sufficient and reliable buoyancy support even after the buoyancy box is damaged, and also enhances its safety and durability. The storage space can be used to store relevant substances, providing a certain degree of protection for the stored substances. In some buoyancy tanks 10 with charging, discharging, and control functions, before filling the inner cavity with buoyancy foam, the battery pack with charging / discharging function, the control unit with control processing function, and the wireless remote control unit with signal transmission and reception are placed inside the buoyancy tank 10. Then, the buoyancy foam is filled in. After filling, the various functional components inside the buoyancy tank are relatively fixed and have good waterproofing. Furthermore, buoyancy tanks 10 with functional components such as rechargeable battery packs can be symmetrically spliced ​​along the front-to-back and / or left-to-right sides of the platform body. This ensures the stability of the platform body under stress while also providing more power reserves and supply.

[0107] like Figure 26-29As shown, when the buoyancy assembly 1 is in a mother-daughter structure form, it includes a first buoyancy assembly 11 and a second buoyancy assembly 12. The first buoyancy assembly 11 is the mother structure, serving as the main body of the platform and capable of carrying people, while the second buoyancy assembly 12 is the daughter structure and cannot carry people. Specifically, the structure of the first buoyancy assembly 11 is the same as the structure of the first specific embodiment where the buoyancy assembly 1 alone serves as the main body of the platform capable of carrying people. Specifically, the first buoyancy body assembly 11 is composed of an inflatable airbag 111 and a buoyancy plate 112 stacked on top of each other and connected by a force-bearing structure assembly 113. The force-bearing structure assembly 113 includes corner guards 1131, a front anti-collision bar assembly 1132, a rear anti-collision bar assembly 1133, a side anti-collision bar assembly 1134, and a restraint strap 1135. The corner guards 1131, the front anti-collision bar assembly 1132, the rear anti-collision bar assembly 1133, and the side anti-collision bar assembly 1134 are detachably connected to form a restraint space 1130, so as to keep the stacked airbags 111 and the buoyancy plate 112 constrained within the restraint space 1130. The two adjacent corner guards 1131 are connected to the restraint strap 1135. The second buoyancy assembly 12 is composed of a single hollow rigid buoyancy box 10. The inner cavity of the buoyancy box 10 is pre-installed with functional components such as a rechargeable battery pack, a control unit, and a wireless remote control unit, and is filled with buoyancy foam along its circumference, forming a storage space in the middle, or is entirely filled with buoyancy foam. The fish-attracting device 4 and the propulsion assembly 2 are detachably connected to the bottom of the buoyancy box 10 of the second buoyancy assembly 12, and the fish-finding device 3 is detachably located on the side of the buoyancy box 10 of the second buoyancy assembly 12. The second buoyancy assembly 12 is equipped with satellite positioning communication and a main control unit that records satellite coordinates, an automatic cruise function, and an automatic return function when power is low.

[0108] like Figure 32 As shown, a flip-locking mechanism 41 is provided between the propulsion power assembly 2 and the side anti-collision bar assembly 1134. The flip-locking mechanism 41 is configured to flip the propulsion power assembly 2 upward to a preset angle and lock it in place, and to flip the propulsion power assembly 2 downward into the water to a preset angle and lock it in place. In this embodiment, the flip-locking mechanism 41 allows the propulsion power assembly 2 to be flipped downward or upward to meet the needs of different usage scenarios. For example, during replacement or disassembly, the flip-locking mechanism 41 flips upward so that the propulsion power assembly 2 is lifted off the water surface and faces upward, facilitating disassembly and replacement; when used on water, the flip-locking mechanism 41 flips downward so that the propulsion power assembly 2 is submerged in the water under the action of gravity and automatically locked. It has the characteristics of ingenious design and convenient use.

[0109] like Figure 30-32As shown, specifically, the aforementioned flipping locking mechanism 41 includes a flipping connecting seat 411 and a flipping arm 412. The flipping connecting seat 411 is connected to the side anti-collision bar assembly 1134. One end of the flipping arm 412 is hinged to the middle of the flipping connecting seat 411. The other end of the flipping arm 412 is provided with a flipping locking mechanism 42 for detachably connecting to the driving power assembly 2 or the fish-attracting device 4. A flipping locking mechanism 43 is provided between the flipping arm 412 and the flipping connecting seat 411 for locking the flipping arm 412 onto the flipping connecting seat 411 when the flipping arm 412 is flipped downward and upward relative to the flipping connecting seat 411 to a preset angle.

[0110] like Figure 3 , 16 As shown in Figure 18, the bottom of the first buoyancy assembly 11 and the second buoyancy assembly 12 are respectively provided with a flip-locking mechanism 42 for detachable connection with the propulsion assembly 2 or the fish-attracting device 4. In this embodiment, the flip-locking mechanism allows for quick replacement of the propulsion assembly or the fish-attracting device to adapt to different application scenarios, providing high flexibility. This allows the platform body to be quickly configured according to task requirements. At the same time, the flip-locking mechanism 42 is configured to at least compatiblely connect the propulsion assembly and the fish-attracting device, thereby improving the versatility of the platform body's extended connections.

[0111] like Figure 30-32 As shown, regardless of whether the buoyancy assembly 1 is in a mother-daughter structure or a standalone structure, the flipping locking mechanism 43 on the platform body has the same structure. It includes a lower locking hole 431 located in the flipping connecting seat 411 and a lower locking rod 432 elastically mounted on the flipping arm 412, which inserts into the lower locking hole 431 when the flipping arm 412 is flipped downwards relative to the flipping connecting seat 411 to a preset angle. The flipping arm 412 also has an unlocking operation component 433 for triggering the unlocking action of the lower locking rod 432. The flipping locking mechanism 43 further includes an upper locking latch 434 located on the flipping connecting seat 411 and an upper locking latch portion 435 located on the unlocking operation component 433, which engages with the upper locking latch 434 when the flipping arm 412 is flipped upwards relative to the flipping connecting seat 411 to a preset angle. During unlocking, simply moving the unlocking operation component 433 relative to the flipping arm 412 releases the corresponding locking state, making unlocking convenient. In this embodiment, the unlocking operation member 433 and the lower locking rod 432 can be fixedly connected, so only one set of elastic members is needed to reliably lock the flip arm 412 in the downward use state or the upward use state.

[0112] like Figure 30-32As shown, the flipping and locking mechanism 42 includes a locking groove 421 on the other end of the flipping arm 412. Both the traveling power assembly 2 and the fish-attracting device 4 are provided with locking rails 422 for engaging with the locking groove. The other end of the flipping arm 412 is provided with a locking locking component for locking the locking rails 422 and the locking groove 421 when they engage. The locking locking component includes a locking recess and a locking protrusion located at the other end of the flipping arm 412 and capable of elastic locking. Figure 31 As shown, the snap-fit ​​locking assembly is a male-female snap-fit ​​connection.

[0113] like Figure 1-4 As shown, when the buoyancy assembly 1 is in a mother-daughter structure, it includes a first buoyancy assembly 11 and a second buoyancy assembly 12. The first buoyancy assembly 11 is the mother structure, serving as the main body of the platform and capable of carrying people, while the second buoyancy assembly 12 is the daughter structure and cannot carry people. Specifically, the structure of the first buoyancy assembly 11 is the same as the structure of the second specific embodiment where the buoyancy assembly 1 alone serves as the main body of the platform capable of carrying people. That is, the first buoyancy assembly 11 is composed of multiple hollow, rigid buoyancy boxes 10 spliced ​​together. The propulsion component 2 is detachably connected to the bottom of the corresponding buoyancy box 10 of the first buoyancy assembly 11. The fish-attracting device 4 and the propulsion component 2 are detachably connected to the bottom of the buoyancy box 10 of the second buoyancy assembly 12, and the fish-finding device 3 is detachably disposed on the side of the buoyancy box 10 of the second buoyancy assembly 12.

[0114] The platform body of this utility model is equipped with a main control unit and a display unit, and establishes automatic wireless frequency pairing communication with the wireless remote control unit on the second buoyancy component 12 or the wireless remote control unit on the drone. It can receive fish-finding video signals transmitted back by the second buoyancy component 12 or the drone, and can effectively control the start-stop and patrol conditions of the second buoyancy component 12 and the drone, as well as control the fish-attracting device 4 attached to the second buoyancy component 12 to start the fish-attracting mode, etc.

[0115] like Figure 1-4 As shown, a detachable connection mechanism 7 is provided between the buoyancy box 10 of the second buoyancy assembly 12 and the front and / or rear end of the first buoyancy assembly 11, so that the second buoyancy assembly 12 can be docked and connected to the first buoyancy assembly 11. In this embodiment, the connection mechanism 7 can quickly connect the second buoyancy assembly 12 or fish basket assembly and other devices to the first buoyancy assembly 11 to adapt to different application scenarios, providing high flexibility. This allows the platform to quickly adjust its configuration according to task requirements. At the same time, the connection mechanism 7 is configured to be compatible with connecting the second buoyancy assembly 12 or fish basket assembly and other devices, thereby improving the versatility of the platform's main body for expansion connections.

[0116] like Figure 1-4 As shown, in order to facilitate connection and ensure reliable connection, the connection mechanism 7 includes, but is not limited to, a connection slot and a connection block disposed between the second buoyancy body component 12 and the first buoyancy body component 11 and capable of engaging with each other. The connection slot is a T-shaped slot, and the connection block is a T-shaped block or an I-shaped block.

[0117] The adjacent buoyancy tanks are assembled using tank splicing components. For example... Figure 1-5 As shown, in order to improve the stress strength between adjacent buoyancy tanks and facilitate positioning and splicing, the tank splicing assembly includes, but is not limited to, the tank splicing concave and convex surfaces 103 provided on the side of the buoyancy tank, and the tank splicing concave and convex surfaces 103 of two adjacent buoyancy tanks are spliced ​​and matched with each other.

[0118] like Figure 1-5 As shown, the box assembly includes a plurality of box connecting ears 104 disposed on the buoyancy box and staggered in the vertical direction, and each box connecting ear 104 is provided with a box connecting hole 1041 for the box connecting rod to pass through.

[0119] To ensure convenient assembly and reliable connection, the box assembly includes, but is not limited to, splicing slots and splicing blocks located between adjacent buoyancy boxes and capable of interlocking with each other. The splicing slots are T-shaped slots, and the splicing blocks are T-shaped blocks or I-shaped blocks.

[0120] like Figure 3 , 8 As shown in Figure 10, the bottom of the buoyancy tank 10 is provided with a flow guide groove 101 along its direction of travel, and the flow guide grooves 101 of the buoyancy tanks 10 spliced ​​together along the direction of travel are interconnected, which can effectively guide the water flow along a specific path, reduce travel resistance, reduce energy consumption, and make the buoyancy tank travel more smoothly and the direction more stable in the water.

[0121] like Figure 3 , 8 As shown in Figure 10, the propulsion power assembly 2 and the fish-attracting device 4 are respectively located inside the corresponding flow-guiding groove 101, which makes the structure more compact, reduces the propulsion resistance, and allows the water flow formed in front and behind the propulsion power assembly 2 to be introduced and discharged through the corresponding flow-guiding groove 101, further making the propulsion smoother.

[0122] like Figure 1 , 3 As shown in Figures 7, 15, 17, 19, and 26, in order to effectively reduce the resistance of the water flow to the buoyancy box and facilitate movement, a water-dividing head 102 is detachably connected to the front of the buoyancy box 10 of the second buoyancy assembly 12. The water-dividing head 102 is connected to the front of the buoyancy box 10 of the second buoyancy assembly 12 via a connecting mechanism 7 or a box splicing assembly.

[0123] like Figure 26-28 As shown in Figure 33, the airbag 111 and the buoyancy plate 112 are provided with a through hole 13. A flexible net trap 131 that can be inserted into the water is snapped into the through hole 13. The flexible net trap 131 is open at the top and bottom and has a structure that is wider at the top and narrower at the bottom. A rigid ring 132 is connected to the top and bottom openings of the flexible net trap 131. Several pull straps 133 are connected circumferentially between the rigid rings 132 arranged vertically. Each pull strap 133 is provided with several pull strap buckles 1331 that can be hooked to the rigid rings 132 at the top opening of the flexible net trap 131 from top to bottom. The pull straps 133 are configured to allow the flexible net trap 131 to hang down completely and open the bottom opening. The pull straps 133 are also lifted up so that the lower end of the flexible net trap 131 is folded inward and placed in the inner cavity of the flexible net trap 131, forming a circular space 134 for placing counterweights. The counterweight can be sandbags prepared on the shore in advance. When the main body of the platform needs to be stably stopped on the water, the counterweight is loaded into the annular space 134 to lower the center of gravity of the main body of the platform. When the main body of the platform needs to move, the control strap 133 is relaxed downward to remove the lifting force on the lower end of the flexible net trap 131, so that the flexible net trap 131 hangs down completely and opens the lower opening, and the counterweight in the annular space 134 falls into the water.

[0124] like Figure 33 As shown, a rigid baffle 135 is also provided inside the flexible net trap 131. The rigid baffle 135 is connected to a baffle suspension rope 136, which can control its up and down movement within the flexible net trap 131. The baffle suspension rope 136 is attached to a rigid ring 132 at the opening of the flexible net trap 131. The flexible net trap 131 and the rigid baffle 135 inside form a storage space. This storage space can be used to store items or as a fish basket. When it is necessary to retrieve the fish from the storage space, the angler can operate the baffle suspension rope 136 to control the rigid baffle 135 to rise, thereby driving the fish towards the opening of the flexible net trap 131, making it easier for the angler to net the fish.

[0125] like Figure 1 , 26 As shown, in order to suspend the fish basket assembly or the second buoyancy body assembly, the buoyancy body assembly 1 is provided with a support assembly 14. The support assembly 14 extends to the front end and / or rear end with an end suspension bracket 15. The end suspension bracket 15 is provided with an end winch assembly 16. The end winch assembly 16 includes a lifting and suspending rope 161. Each lifting and suspending rope 161 has multiple hanging rope segments 162 forked at its lower end. The hanging rope segments 162 at the lower end of the same lifting and suspending rope 161 are detachably connected to the object being suspended so that the object can be lifted and lowered smoothly.

[0126] like Figure 1 , 26As shown, to ensure smooth lifting and lowering during the hoisting process, end hoisting assemblies 16 are provided on both the left and right sides of the end suspension bracket 15. Each lifting and hoisting rope 161 has two hoisting rope segments 162 forked at its lower end. The hoisting rope segments 162 of different lifting and hoisting ropes 161 located on the same end of the bracket assembly 14 are configured to be simultaneously and detachably connected to a hoisted object. In this embodiment, the hoisted object can be the buoyancy box of the second buoyancy body assembly. Two hoisting connecting ears are provided on both sides of the buoyancy box, spaced apart in the front-to-back direction. The two hoisting rope segments 162 of the same lifting and hoisting rope 161 are correspondingly connected to the two hoisting connecting ears on the same side. During use, the two hoisting rope segments 162 of one lifting and hoisting rope 161 are connected to the two hoisting connecting ears on the same side, and simultaneously the two hoisting rope segments 162 of another lifting and hoisting rope 161 are connected to the two hoisting connecting ears on the same side, as shown. Figure 1 , 26 As shown, the end winch of the end winch assembly 16 then pulls the lifting and hoisting rope 161 to lift the buoyancy box upward. At this time, the user can flip the buoyancy box to the bottom-up position as needed, so that the fish finding device, fish attracting device, and propulsion power component can be attached to the bottom of the buoyancy box. The operation is convenient and safe.

[0127] The fish basket assembly can be connected to the front and / or rear of the platform body. The fish basket assembly is a rigid, hollow buoyancy box 10. The fish basket assembly is controlled by the end winch assembly 16 to move up and down relative to the buoyancy body assembly. When the buoyancy body assembly is close to the shore, the end winch assembly 16 controls the fish basket assembly to rise, which can easily send the heavier fish basket assembly containing the catch to the shore.

[0128] This utility model provides a motorized fish-finding platform system, and offers the following four embodiments based on the system's combined configuration:

[0129] Example 1: When the buoyancy assembly 1 is a standalone structure serving as the main body of the platform, the propulsion assembly 2, the fish-finding device 3, and the fish-attracting device 4 are all detachably mounted on the buoyancy assembly—the main body of the platform. The following steps are included in its use:

[0130] S1. The propulsion component 2 of the buoyancy assembly 1 drives the buoyancy assembly 1 to move the fish-finding device 3 and the fish-attracting device 4 to detect the presence of underwater fish.

[0131] S2. When the fish-finding device 3 detects the appearance of a school of fish, the fish-attracting device 4 is activated to send out a fish-attracting signal to attract the attention of the school of fish and induce the school of fish to approach the fish-attracting device 4 and gather accordingly.

[0132] S3. Then, the angler on the buoyancy assembly 1 uses the net trap assembly 6 or the rod and fish assembly to fish for the fish in the fishing area.

[0133] Example 2: When the buoyancy assembly 1 is a standalone structure serving as the main body of the platform, the fish-attracting device 4 is mounted on the buoyancy assembly—the main body of the platform. The fish-finding device 3 is connected to the drone 30 via a wiring harness, allowing the drone 30 to pull the fish-finding device 3 to move on the water. The usage includes the following steps:

[0134] S1. Control the drone 30 to pull the fish-finding device 3 to travel on the water to detect the presence of fish in the water. When the fish are detected, the drone 30 or the fish-finding device 3 marks the coordinate position of the fish and sends the coordinate position information to the first buoyancy body component 11. After that, the drone 30 can pull the fish-finding device 3 to detect the presence of another fish.

[0135] S2. Control the propulsion component 2 of the first buoyancy body component 11 to drive the first buoyancy body component 11 to the coordinate position of the fish school, and then activate the fish-attracting device 4 to emit a fish-attracting signal to attract the attention of the fish school and induce the fish school to approach the fish-attracting device 4 and gather accordingly.

[0136] S3. The angler on the first buoyancy body assembly 11 fishes for the fish at the coordinate location using the net trap assembly 6 or the rod and fish assembly.

[0137] Example 3: When the buoyancy assembly 1 is in a mother-daughter structure, the first buoyancy assembly 11 serves as the main body of the platform and is the mother structure, while the second buoyancy assembly 12 serves as the daughter structure. Multiple second buoyancy assemblies 12 can be configured, and each second buoyancy assembly 12 is equipped with a fish-finding device 3 and a fish-attracting device 4. The usage includes the following steps:

[0138] S1. First, control the propulsion power component 2 to drive the first buoyancy body component 11 to move the second buoyancy body component 12 to the corresponding water area. Then, separate the second buoyancy body component 12 from the first buoyancy body component 11. Then, control the propulsion power component 2 to drive the second buoyancy body component 12 to move the fish finding device 3 and the fish attracting device 4 to detect the presence of underwater fish and attract fish. When the fish are detected, the second buoyancy body component 12 marks the coordinate position of the fish and activates the fish attracting device 4 to send a fish attracting signal to attract the attention of the fish and induce the fish to approach the fish attracting device 4 and gather accordingly. At the same time, send the coordinate position information to the first buoyancy body component 11.

[0139] S2. Control the propulsion component 2 of the first buoyancy body component 11 to drive the first buoyancy body component 11 to the fish school coordinate position in S1. When the first buoyancy body component 11 reaches the fish school coordinate position, the fish-attracting device 4 stops attracting fish. Then, the angler on the first buoyancy body component 11 uses the net trap component 6 or the rod fishing component to fish the fish school that is close to the fish-attracting device 4.

[0140] Alternatively, the propulsion component 2 of the second buoyancy body component 12 can be controlled to drive the second buoyancy body component 12 to move the fish-attracting device 4 toward the fishing area of ​​the first buoyancy body component 11. During the movement, the fish-attracting device 4 will emit fish-attracting signals intermittently or continuously. When the fish arrive at the fishing area, the fish-attracting device 4 will stop attracting fish, and the angler on the first buoyancy body component 11 can fish for the fish in the fishing area through the net trap component 6 or the rod and fishing component.

[0141] Example 4: When the buoyancy assembly 1 is in a mother-daughter structure, the first buoyancy assembly 11 serves as the main body of the platform and is the mother structure, while the second buoyancy assembly 12 serves as the daughter structure. Multiple second buoyancy assemblies 12 can be configured, and each second buoyancy assembly 12 is equipped with a fish-attracting device 4. The fish-finding device 3 is connected to the drone 30 via a wiring harness. The usage includes the following steps:

[0142] S1. Control the drone 30 to pull the fish-finding device 3 on the water to detect the presence of fish in the water. When the fish are detected, the drone 30 or the fish-finding device 3 marks the coordinate position of the fish and sends the coordinate position information to the first buoyancy assembly 11 or the second buoyancy assembly 12.

[0143] Alternatively, the drone 30 can be controlled to pull the fish-finding device 3 on the water to detect the presence of schools of fish underwater. When a school of fish is detected, the drone 30 or the fish-finding device 3 marks the coordinates of the school and sends the coordinate information to the first buoyancy assembly 11 or the second buoyancy assembly 12. Then, the drone 30 continues to pull the fish-finding device 3 on the water to detect the presence of schools of fish in other locations. When the next school of fish is detected, the drone 30 or the fish-finding device 3 marks the coordinates of the school and sends the corresponding coordinate information to the first buoyancy assembly 11 or the other second buoyancy assembly 12.

[0144] S2. The corresponding control of the second buoyancy body assembly 12's propulsion power assembly 2 drives the second buoyancy body assembly 12 to move the fish-attracting device 4 to the corresponding fish school coordinate position. Then, the fish-attracting device 4 is activated to emit a fish-attracting signal to attract the attention of the fish school and induce the fish school to approach the fish-attracting device 4 and gather accordingly.

[0145] S3. Control the propulsion component 2 of the first buoyancy body component 11 to drive the first buoyancy body component 11 to the corresponding fish school coordinate position in S2. Then, the angler on the first buoyancy body component 11 uses the net trap component 6 or the rod fishing component to fish for the fish school at the coordinate position.

[0146] Alternatively, the propulsion component 2 of the second buoyancy assembly 12 can be controlled to drive the second buoyancy assembly 12 to move the fish-attracting device 4 toward the fishing area of ​​the first buoyancy assembly 11. During the movement, the fish-attracting device 4 continuously emits fish-attracting signals to induce the fish to follow to the fishing area. When the fish arrive at the fishing area, the fish-attracting device 4 on the second buoyancy assembly 12 stops working, and the angler on the first buoyancy assembly 11 can fish for the fish in the fishing area using the net trap component 6 or the rod and fishing component.

[0147] In summary, this utility model, a motorized fish-finding platform system, by adding mobility, endows fish-finding and fish-luring operations with flexibility and efficiency, providing conditions for net fishing or rod fishing. It significantly differs from traditional fishing methods. Furthermore, this utility model allows multiple people to participate in fish-finding and fish-luring activities, thus achieving the characteristic of shared enjoyment of fishing and further increasing the fun of the activity, enriching people's entertainment and sports life. In addition, the following should be included in the above embodiments and their specific implementation processes:

[0148] 1. During the fish-finding process, hydrological information on the appearance of different fish species is collected, including one or more of the following: water temperature, water depth, fish species, fish size, and location coordinates, to provide data analysis and reference for subsequent fishing.

[0149] 2. The fish-attracting device 4 can emit fish-attracting signals intermittently or continuously according to a preset fish-attracting mode. The fish-attracting signals include one or more combinations of bait quantity, fish-attracting sound waves, and fish-attracting light, which are used to adapt to the behavioral habits of different types of fish groups.

[0150] 3. When using the net trap assembly 6 for fishing, the net trap assembly 6 needs to be lowered to a preset depth in the water. Preferably, the fish attracting device 4 needs to be turned off and the fish attracting component of the net trap assembly 6 needs to be turned on to induce fish into the confinement space of the net trap assembly 6. Then, the entrance to the confinement space is closed, and finally the net trap assembly 6 is controlled to rise to complete the fish collection. The structure of the fish attracting component can be a fish attracting device or a similar structure, which will not be described in detail here.

Claims

1. A motorized fish-finding platform system, characterized in that... include: The buoyancy assembly (1) can reliably float on water; The propulsion power assembly (2) is detachably attached to the bottom or side of the buoyancy body assembly (1) to drive the buoyancy body assembly (1) to move accordingly on the water. Fish-finding device (3) is used to detect the presence of schools of fish underwater. The fish-finding device (3) is mounted on the buoyancy assembly (1), or the fish-finding device (3) is set separately from the buoyancy assembly (1) and can move relative to the buoyancy assembly (1) to perform fish-finding work. Fish-attracting device (4) is used to induce fish to approach the fish-attracting device (4) and gather accordingly. The fish-attracting device (4) is configured to activate the fish-attracting mode when the fish detected by the fish-finding device (3) appears within a preset range, so that the fish gather towards the fish-attracting device (4).

2. The motorized fish-finding platform system according to claim 1, characterized in that... The buoyancy assembly (1) includes a first buoyancy assembly (11) and a second buoyancy assembly (12). The first buoyancy assembly (11) and the second buoyancy assembly (12) are respectively equipped with a propulsion assembly (2). The second buoyancy assembly (12) is detachably connected to the front end or rear end of the first buoyancy assembly (11). The second buoyancy assembly (12) can move on the water separately from the first buoyancy assembly (11).

3. The mobile fish-finding platform system according to claim 2, characterized in that... The fish-finding device (3) and the fish-attracting device (4) are mounted on the second buoyancy assembly (12). When the second buoyancy assembly (12) is separated from the first buoyancy assembly (11), the fish-finding device (3) and the fish-attracting device (4) move on the water with the second buoyancy assembly (12) relative to the first buoyancy assembly (11) to perform fish-finding and fish-attracting work.

4. The mobile fish-finding platform system according to claim 2, characterized in that... The fish-finding device (3) is connected to a drone (30) via a wiring harness, so that the drone (30) pulls the fish-finding device (3) to move on the water. The drone (30) is configured to dock on the water surface or on the first buoyancy assembly (11) or the second buoyancy assembly (12). The fish-attracting device (4) is located on the second buoyancy assembly (12), which is configured to move according to the positioning coordinates issued by the fish-finding device (3) or the drone (30) to perform fish-attracting work.

5. The motorized fish-finding platform system according to claim 4, characterized in that... The first buoyancy body assembly (11) is provided with a sunshade assembly (5) for the drone (30) to dock, and the sunshade assembly (5) is configured to lock and limit the drone (30) docked thereon.

6. The motorized fish-finding platform system according to claim 1, characterized in that... The buoyancy assembly (1) is composed of inflatable airbags (111) and buoyancy plates (112) stacked vertically and connected by a load-bearing structure assembly (113). The load-bearing structure assembly (113) includes corner guards (1131), a front anti-collision bar assembly (1132), a rear anti-collision bar assembly (1133), a side anti-collision bar assembly (1134), and restraint straps (1135). The corner guards (1131), the front anti-collision bar assembly (1132), the rear anti-collision bar assembly (1133), and the side anti-collision bar assembly (1134) are detachably connected to form a restraint space (1130) to hold the stacked airbags in place. The bladder (111) and the buoyancy plate (112) are kept constrained within the constraint space (1130), and the two adjacent corner guards (1131) are connected to the constraint strap (1135); the fish-finding device (3) is located on the bottom side of the front anti-collision bar group (1132), and the fish-attracting device (4) and the side anti-collision bar group (1134) are provided with a flip-locking mechanism (41). The flip-locking mechanism (41) is configured such that the fish-attracting device (4) flips upward to a preset angle and is positioned and locked, so that the feeding port of the fish-attracting device (4) faces upward, and the fish-attracting device (4) flips downward to a preset angle and is positioned and locked.

7. The motorized fish-finding platform system according to claim 1, characterized in that... The buoyancy assembly (1) is composed of multiple hollow rigid buoyancy boxes (10) spliced ​​together. The propulsion power assembly (2) and the fish-attracting device (4) are respectively detachably installed at the bottom of the buoyancy box (10). The inner cavity of the buoyancy box (10) is filled with buoyancy foam along the circumference and a storage space is formed in the middle.

8. A motorized fish-finding platform system according to claim 6 or 7, characterized in that... The fish-finding device (3) is connected to a drone (30) via a wiring harness, so that the drone (30) pulls the fish-finding device (3) to move on the water. The drone (30) is configured to dock on the water surface or on the buoyancy assembly (1). The buoyancy assembly (1) is configured to move according to the positioning coordinates issued by the fish-finding device (3) or the drone (30) to carry out fish-attracting work.

9. The motorized fish-finding platform system according to claim 2, characterized in that... The first buoyancy body assembly (11) is composed of inflatable airbags (111) and buoyancy plates (112) stacked vertically and connected by a force-bearing structure assembly (113). The force-bearing structure assembly (113) includes corner guards (1131), a front anti-collision bar assembly (1132), a rear anti-collision bar assembly (1133), a side anti-collision bar assembly (1134), and restraint straps (1135). The corner guards (1131), the front anti-collision bar assembly (1132), the rear anti-collision bar assembly (1133), and the side anti-collision bar assembly (1134) are detachably connected to form a restraint space (1130) to hold the stacked airbags (1111) together. 11) The buoyancy plate (112) is kept constrained within the constraint space (1130), and the two adjacent corner guards (1131) are connected to the constraint strap (1135); the second buoyancy body assembly (12) is composed of a single hollow rigid buoyancy box (10), the inner cavity of the buoyancy box (10) is filled with buoyancy foam along the circumference and a storage space is formed in the middle, the fish attracting device (4) and the propulsion power assembly (2) are detachably connected to the bottom of the buoyancy box (10) of the second buoyancy body assembly (12), and the fish finding device (3) is detachably provided on the side of the buoyancy box (10) of the second buoyancy body assembly (12).

10. A motorized fish-finding platform system according to claim 6 or 9, characterized in that... A flip-locking mechanism (41) is provided between the motor drive assembly (2) and the side anti-collision bar assembly (1134), and the flip-locking mechanism (41) is configured such that the motor drive assembly (2) flips upward to a preset angle and is positioned and locked, and the motor drive assembly (2) flips downward and is submerged in the water to a preset angle and is positioned and locked.

11. The motorized fish-finding platform system according to claim 10, characterized in that... The flipping locking mechanism (41) includes a flipping connecting seat (411) and a flipping arm (412). The flipping connecting seat (411) is connected to the side anti-collision bar assembly (1134). One end of the flipping arm (412) is hinged to the middle of the flipping connecting seat (411). The other end of the flipping arm (412) is provided with a flipping locking mechanism (42) for detachably connecting to the driving power assembly (2) or the fish-attracting device (4). A flipping locking mechanism (43) is provided between the flipping arm (412) and the flipping connecting seat (411) to lock the flipping arm (412) on the flipping connecting seat (411) when the flipping arm (412) is flipped downward and upward relative to the flipping connecting seat (411) to a preset angle.

12. The motorized fish-finding platform system according to claim 2, characterized in that... The first buoyancy body assembly (11) is composed of multiple hollow rigid buoyancy boxes (10) spliced ​​together. The propulsion power assembly (2) is detachably connected to the bottom of the corresponding buoyancy box (10) of the first buoyancy body assembly (11). The second buoyancy body assembly (12) is composed of a single hollow rigid buoyancy box (10). The inner cavity of the buoyancy box (10) is filled with buoyancy foam along the circumference and a storage space is formed in the middle. The fish attracting device (4) and the propulsion power assembly (2) are detachably connected to the bottom of the buoyancy box (10) of the second buoyancy body assembly (12). The fish finding device (3) is detachably provided on the side of the buoyancy box (10) of the second buoyancy body assembly (12).

13. A motorized fish-finding platform system according to claim 9 or 12, characterized in that... The second buoyancy body assembly (12) has a detachable connection mechanism (7) between its buoyancy box (10) and the front and / or rear end of the first buoyancy body assembly (11), so that the second buoyancy body assembly (12) can be docked and connected to the first buoyancy body assembly (11).

14. A motorized fish-finding platform system according to claim 7, 9, or 12, characterized in that... The bottom of the buoyancy box (10) is provided with a flow guide groove (101) along its direction of travel, and the flow guide grooves (101) of the buoyancy boxes (10) spliced ​​together in the direction of travel are interconnected.

15. A motorized fish-finding platform system according to claim 9 or 12, characterized in that... The buoyancy box (10) of the second buoyancy body assembly (12) is detachably connected to a water distribution head (102) at the front.

16. A motorized fish-finding platform system according to claim 6 or 9, characterized in that... A snap-fit ​​hole (13) is provided through the middle of the airbag (111) and the buoyancy plate (112). A flexible net trap (131) that can be inserted into the water is snapped into the snap-fit ​​hole (13). The flexible net trap (131) is open at the top and bottom and has a structure that is wider at the top and narrower at the bottom. A rigid ring (132) is connected to the top and bottom openings of the flexible net trap (131). Several pull straps (133) are connected circumferentially between the rigid rings (132) arranged vertically. Each pull strap ( 133) A number of pull strap fasteners (1331) are provided at intervals from top to bottom, which can be hooked to the rigid ring (132) at the opening of the flexible mesh trap (131). The pull strap (133) is configured to allow the flexible mesh trap (131) to hang down completely and open the lower opening. The pull strap (133) is also lifted up so that the lower end of the flexible mesh trap (131) is folded inward and placed in the inner cavity of the flexible mesh trap (131), forming a ring space (134) for storing counterweights.

17. A motorized fish-finding platform system according to claim 16, characterized in that... The flexible mesh trap (131) is also provided with a rigid baffle (135). The rigid baffle (135) is connected to a baffle suspension rope (136) that can control its up and down movement within the flexible mesh trap (131). The baffle suspension rope (136) is attached to a rigid ring (132) at the opening of the flexible mesh trap (131). The flexible mesh trap (131) and the rigid baffle (135) placed inside it form a storage space.

18. The motorized fish-finding platform system according to claim 1, characterized in that... The buoyancy body assembly (1) is provided with a support assembly (14), and the support assembly (14) extends to the front end and / or rear end with an end suspension bracket (15). The end suspension bracket (15) is provided with an end winch assembly (16). The end winch assembly (16) includes a lifting and hanging rope (161). Each lifting and hanging rope (161) has multiple hanging rope segments (162) forked at its lower end. The hanging rope segments (162) at the lower end of the same lifting and hanging rope (161) are detachably connected to the suspended object so that the object can be lifted and lowered smoothly.

19. A motorized fish-finding platform system according to claim 18, characterized in that... The end suspension bracket (15) is provided with end winch assemblies (16) on both the left and right sides. Each of the lifting and hanging ropes (161) has two hanging rope segments (162) forked at the lower end. The hanging rope segments (162) of different lifting and hanging ropes (161) located on the same end of the bracket assembly (14) are configured to be detachably connected to a hanging object at the same time.

20. A motorized fish-finding platform system according to claim 1, characterized in that... The buoyancy assembly (1) is provided with a support assembly (14), and a side suspension bracket (17) extends from the left and / or right side of the support assembly (14). A net trap assembly (6) that can be raised and lowered relative to the buoyancy assembly (1) is suspended on the side suspension bracket (17). A net trap winch assembly (18) for controlling the raising and lowering of the net trap assembly (6) relative to the buoyancy assembly (1) is provided on the side suspension bracket (17); and / or, a rod fishing assembly is provided on the buoyancy assembly (1).

21. The motorized fish-finding platform system according to claim 20, characterized in that... The net trap assembly (6) includes a rigid net trap section (61) and a flexible net trap section (62) connected to the lower end of the rigid net trap section (61). The upper end of the rigid net trap section (61) is directly or indirectly connected to the net trap winch assembly (18). The lower end of the flexible net trap section (62) is connected to a rigid net trap support ring (63). The net trap assembly (6) is configured such that at least the lower end of the flexible net trap section (62) is lifted and detached from the water surface during the movement of the buoyancy body assembly (1).

22. The motorized fish-finding platform system according to claim 1, characterized in that... The buoyancy body assembly (1) is provided with a support assembly (14), the support assembly (14) includes a vertical column (141) whose lower end is detachably connected to the buoyancy body assembly (1), the side of the vertical column (141) is provided with a column extension connection part (1411) for extension connection along the vertical direction, and the top of the vertical column (141) is provided with a sunshade top assembly (5).

23. The mobile fish-finding platform system according to claim 22, characterized in that... The sunshade top assembly (5) includes a sunshade plate (51) that is hollowed out and located at the top of the vertical column (141). The sunshade top assembly (5) has a sunshade cloth assembly (52) that can cover the upper surface of the sunshade plate (51) at the front or rear end and between the tops of the two vertical columns (141).

24. The mobile fish-finding platform system according to claim 22, characterized in that... A height-adjustable edging assembly (19) is detachably provided between two adjacent vertical columns (141). The edging assembly (19) includes a flexible and foldable edging body (191). An edging connecting block (192) is connected to the end of the edging body (191). The edging connecting block (192) is connected and cooperates with the column extension connecting part (1411).

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