Seabed observation platform capable of resisting stormy waves and preventing biological adhesion
By designing scraper and blade structures on the seabed observation platform to remove marine organisms, the problems of reduced flow and sealing failure caused by organism attachment were solved, enabling stable operation and efficient detection of the platform.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- QINGDAO HUANHAI OCEAN ENG INVESTIGATION RES INST
- Filing Date
- 2026-03-27
- Publication Date
- 2026-05-12
AI Technical Summary
Existing seabed observation platforms suffer from reduced airflow through their protective shields due to the attachment of marine organisms such as barnacles to their surfaces. This affects the accuracy of seabed current testing and may lead to platform seal failure, impacting the progress of observation work.
A scraper structure was designed to periodically remove marine organisms by coordinating the movement of the scraper and blades, preventing the protective mesh from becoming clogged, and the platform weight can be adjusted by a counterweight structure to adapt to different ocean current environments.
It effectively prevents marine organisms from attaching, maintains platform flow, avoids seal failure, improves detection accuracy, reduces maintenance costs, and adapts to stable operation in different ocean current environments.
Smart Images
Figure CN122009446A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of marine observation technology, and in particular to a seabed observation platform that is resistant to wind, waves and biofouling. Background Technology
[0002] Submarine observation platforms are important marine scientific facilities located on the seabed. They are equipped with various instruments to monitor and collect marine environmental data continuously and automatically over a long period of time. They are capable of observing physical ocean parameters such as seawater temperature, salinity, ocean currents, and tides. They are widely used in marine scientific research, climate change monitoring, fisheries resource management, marine disaster early warning, marine resource exploration, and national defense security.
[0003] Existing seabed observation platforms operate on the seabed and are protected by a metal mesh shield to prevent damage to the internal precision instruments from marine life or solid debris carried by ocean currents. However, for traditional seabed observation platforms, if barnacles or other shellfish attach to their surface, it will reduce the flow of the shield, causing seawater to be obstructed from passing through the platform and affecting the accuracy of testing seabed currents. If the attachment of organisms is severe, it will cause the platform to become sealed, leading to platform failure and affecting the progress of observation work. Summary of the Invention
[0004] This invention provides a seabed observation platform that is resistant to wind and waves and prevents biofouling. It addresses the problem that if barnacles and other marine organisms attach to its surface, the protective cover will be less permeable, causing seawater to be blocked from passing through the observation platform and affecting the accuracy of seabed current testing. If the biofouling is severe, it will cause the observation platform to become sealed, leading to the failure of the seabed observation platform and affecting the progress of observation work.
[0005] This invention provides a seabed observation platform resistant to wind, waves, and biofouling, specifically comprising: a main body of the seabed observation platform; a platform cover above the main body; four cover pillars below the platform cover; cover railings horizontally installed between adjacent cover pillars; gear covers fixedly connected to the four cover pillars; a linkage screw rotatably connected between adjacent gear covers via bearings and sealing rings; and synchronous bevel gears at both ends of the linkage screws via interference fit. Two linkage screws on adjacent surfaces are perpendicular, and the synchronous bevel gears at the mating ends of adjacent linkage screws are... The gear cover is connected in an meshing manner. A cleaning drive component is fixedly connected to the right surface of the gear cover on the front right side. The shaft of the cleaning drive component is fixedly connected to a drive gear, which is located inside the gear cover. The drive gear meshes with a lead screw synchronous bevel gear. A scraper assembly frame is slidably connected to the guardrail. A spiral push cylinder is fixedly connected to the outer surface of the scraper assembly frame. The spiral push cylinder is spirally connected to a linkage lead screw. The threads of two adjacent linkage lead screws have opposite directions. Two parallel blades are fixedly connected inside the scraper assembly frame. The two parallel blades are respectively attached to the inner and outer surfaces of the guardrail.
[0006] Furthermore, the bottom of the main body of the seabed observation platform is provided with a lower platform cavity, and nine counterweight studs are evenly connected inside the lower platform cavity. The counterweight studs are vertically welded to the top surface of the lower platform cavity.
[0007] Furthermore, a counterweight block is provided inside the lower cavity of the platform, and a connecting screw hole is provided through the center of the counterweight block, which is spirally connected to the counterweight stud.
[0008] Furthermore, the cleaning drive unit is connected to an energy storage power supply via an electrical connection line. The energy storage power supply is fixedly connected inside the lower cavity of the platform. The cleaning drive unit is connected to a remote control terminal via a wireless signal.
[0009] Furthermore, the scraper assembly frame is a rectangular frame formed by bolting an outer frame plate and an inner frame plate together. The scraper assembly frame is perpendicular to the upper surface of the main body of the seabed observation platform, and a parallel blade is attached to the front wall and the rear wall of the scraper assembly frame respectively.
[0010] Furthermore, a spiral pusher is fixedly connected to the outer surface of the outer frame plate, and a rectangular through-hole is provided in the outer frame plate. An assembly plug with a rectangular cross-section is vertically connected to the outer surface of the inner frame plate, and the assembly plug is tightly inserted into the outer frame port.
[0011] Furthermore, the parallel blades are provided with blade insertion slots, which are slidably connected to mounting posts. A blade pad is provided between the two parallel blades, and the blade pad is located in the gap between the two guardrails.
[0012] Furthermore, the blade pad has two scraper slots, and a pad scraper is tightly inserted into the scraper slot, with the blade of the pad scraper fitting snugly against the guardrail.
[0013] Furthermore, the blade pad has a rectangular pad insertion port extending through the center from front to back, and the pad insertion port is slidably connected to the mounting post.
[0014] Furthermore, vertical guide plates are fixedly connected to the four corner positions of the main body of the seabed observation platform, a spiral pusher cylinder is fixedly connected to the top of the vertical guide plate, an anchoring drive component is slidably connected to the outside of the vertical guide plate, the lower end of the push rod of the spiral pusher cylinder is fixedly connected to the anchoring drive component, and a spiral anchor is fixedly connected to the rotating shaft of the anchoring drive component.
[0015] This invention provides a seabed observation platform that is resistant to wind, waves, and biofouling, and has the following beneficial effects: The observation platform described in this application is equipped with a scraper. Through the reciprocating motion of the scraper structure, the outer and inner walls of the metal shield are periodically scraped to clean the surface impurities. The blade structure also removes marine organisms attached to the outer surface of the metal shield, thereby preventing excessive marine organisms from adhering to the outside of the observation platform shield and causing blockage of the shield mesh. This also prevents the observation platform from becoming unsealed and failing, thus affecting the progress of the observation work.
[0016] Furthermore, the scraper and other components in this application are installed via an assembly frame. The parallel blades and blade pads are securely installed in multiple directions by the assembly columns of the outer and inner frame plates, ensuring that the parallel blades and blade pads are in close contact with the surface of the protective railing. This achieves effective removal of marine organisms from the surface of the protective railing. For cleaning, maintenance, and replacement of the parallel blades and blade pads, the outer and inner frame plates can be separated after the platform protective cover is disassembled, allowing for quick disassembly of the parallel blades and blade pads. The blade disassembly and installation are convenient, facilitating regular maintenance and replacement, and ensuring the continuous and stable operation of the seabed observation platform. The improved scraper assembly frame securely locks the blades, and the blades are quick to install and remove, resulting in low maintenance and upkeep costs for the device.
[0017] In addition, this application allows for the selective installation of a counterweight structure at the bottom of the platform. In seabed areas with strong currents, a larger number of counterweight blocks can be installed at the bottom of the platform to increase its weight, improve its resistance to wind and waves, and make the platform more stable on the seabed. In areas with weak currents and relatively calm conditions, some or all of the counterweight blocks can be removed to reduce the weight of the platform, reduce transportation costs and ease of loading and unloading, and make the weight of the platform flexible and controllable, suitable for seabed environments with different current conditions. Attached Figure Description
[0018] To more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings of the embodiments will be briefly described below.
[0019] The accompanying drawings described below are only related to some embodiments of the invention and are not intended to limit the invention.
[0020] In the attached diagram: Figure 1 A schematic diagram of the overall structure of this application is shown; Figure 2 A top view of the structure of this application is shown; Figure 3 This paper shows a schematic diagram of the structure at the bottom of the main body of the seabed observation platform of this application; Figure 4 A schematic diagram of the internal structure of the gear cover of this application is shown; Figure 5 This diagram shows the structural layout of the outer frame plate and inner frame plate of this application. Figure 6 This application shows Figure 5 A schematic diagram of the left-side view structure; Figure 7 A schematic diagram of the scraper assembly frame structure of this application is shown; Figure 8 This diagram shows the structure of the scraper assembly frame in its disassembled state. Figure 9 A schematic diagram of the inner frame plate structure of this application is shown; Figure 10 A schematic diagram of the spiral anchor of this application is shown; Figure 11 This application shows Figure 4 A magnified structural diagram of point A in the middle; Figure 12 This application shows Figure 5 A magnified structural diagram of point B in the middle section; Figure 13 This application shows Figure 8 A magnified structural diagram of point C in the middle; Figure 14 This application shows Figure 4 A magnified structural diagram of a portion of point D.
[0021] Figure label: 1. Main body of the seabed observation platform; 101. Lower cavity of the platform; 102. Counterweight stud; 2. Platform cover; 201. Cover column; 202. Cover railing; 3. Gear cover; 4. Linkage screw; 401. Synchronous bevel gear of the screw; 5. Cleaning drive component; 501. Drive gear; 502. Energy storage power supply; 6. Scraper assembly frame; 601. Outer frame plate; 602. Inner frame plate; 603. Assembly pin; 604. Outer frame socket; 605. Spiral pusher cylinder; 7. Parallel blade; 701. Blade socket; 8. Blade pad; 801. Pad socket; 802. Scraper slot; 803. Pad scraper; 9. Counterweight block; 901. Connecting bolt hole; 10. Vertical guide plate; 11. Spiral pusher cylinder; 12. Anchoring drive component; 13. Spiral anchor. Detailed Implementation
[0022] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of the present invention. Based on the described embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.
[0023] Example 1: Please refer to Figures 1 to 14 : This invention proposes a seabed observation platform resistant to wind, waves, and biofouling, comprising: a main body 1; a platform cover 2 above the main body 1; four cover columns 201 below the cover 2; cover railings 202 horizontally installed between adjacent cover columns 201; gear covers 3 fixedly connected to the four cover columns 201; a linkage screw 4 rotatably connected between adjacent gear covers 3 via bearings and sealing rings; the two ends of the linkage screw 4 are connected to the screw synchronizing bevel gears 401 via interference fit; two linkage screws 4 on adjacent surfaces are perpendicular and adjacent to each other. Two lead screws 4 are connected by a synchronous bevel gear 401 at their mating ends. A cleaning drive component 5 is fixedly connected to the right surface of the front right gear cover 3. The shaft of the cleaning drive component 5 is fixedly connected to a drive gear 501, which is located inside the gear cover 3. The drive gear 501 meshes with one of the lead screw synchronous bevel gears 401. A scraper assembly frame 6 is slidably connected to the cover railing 202. A spiral pusher 605 is fixedly connected to the outer surface of the scraper assembly frame 6. The spiral pusher 605 is spirally connected to the lead screw 4. The threads of two adjacent lead screws 4 have opposite directions. 6. Two parallel blades 7 are fixedly connected internally, and the two parallel blades 7 are respectively attached to the inner and outer surfaces of the protective railing 202. The working environment of the main body 1 of the seabed observation platform is located on the seabed. Various detection instruments and sensors are installed on the top of the main body 1 of the seabed observation platform to observe the seawater. The sensors and detection instruments on the top of the main body 1 of the seabed observation platform are protected by the platform protective cover 2. The operator starts the cleaning drive 5 periodically through the remote terminal. If marine organisms are attached to the outside of the protective railing 202, when the cleaning drive 5 is started, the active gear 501 and the lead screw synchronize with the bevel gear 40. The gear and rack drive of 1 drives the linkage screw 4 to rotate, and through the synchronous meshing connection of multiple sets of screw synchronous bevel gears 401, it drives four sets of linkage screws 4 to rotate synchronously. When the linkage screw 4 rotates, it forms a spiral drive with the spiral push cylinder 605, pushing the scraper assembly frame 6 to slide along the guardrail 202, so that the parallel blade 7 scrapes on the surface of the guardrail 202, which can peel off the marine organisms attached to the outer surface of the guardrail 202, avoiding the phenomenon that marine organisms attached to the surface of the guardrail 202 will reduce the flow performance, and at the same time, it can avoid the situation that the acidic mucus secreted by marine organisms will corrode the guardrail 202.
[0024] The main body of the seabed observation platform 1 is connected to a buoy by ropes. The buoy is equipped with an alarm device, a wave sensor, and a Beidou positioning system, which can prevent loss and provide real-time location information. The data is collected in conjunction with parameters such as wave height, period, and wave direction.
[0025] In this embodiment, the cleaning drive unit 5 is connected to an energy storage power supply 502 via an electrical connection line. The energy storage power supply 502 is fixedly connected inside the lower cavity 101 of the platform. The cleaning drive unit 5 is connected to a remote control terminal via a wireless signal. By storing electrical energy through the energy storage power supply 502, the operator can remotely control the cleaning drive unit 5 to start periodically via a wireless signal.
[0026] In this embodiment, the scraper assembly frame 6 is a rectangular frame formed by bolting an outer frame plate 601 and an inner frame plate 602 together. The scraper assembly frame 6 is perpendicular to the upper surface of the main body 1 of the seabed observation platform. A parallel blade 7 is attached to the front and rear walls of the scraper assembly frame 6. A spiral pusher 605 is fixedly connected to the outer surface of the outer frame plate 601. The outer frame plate 601 has a rectangular perforated outer frame insertion port 604. An assembly post 603 with a rectangular cross-section is vertically connected to the outer surface of the inner frame plate 602. The assembly post 603 is tightly inserted into the outer frame insertion port 604. The parallel blade 7 A blade insertion port 701 is provided through the blade insertion port 701, and a mounting post 603 is slidably connected to the blade insertion port 701. A blade pad 8 is provided between two parallel blades 7, and the blade pad 8 is located in the gap between the two guardrails 202. The blade pad 8 has two scraper slots 802, and a pad scraper 803 is tightly inserted into the scraper slot 802. The blade of the pad scraper 803 is in contact with the guardrail 202, and the edge of the pad scraper 803 is in contact with the parallel blades 7. The pad scraper 803 is clamped and positioned by the two parallel blades 7, so as to prevent the pad scraper 803 from moving inside the scraper slot 802.
[0027] In this embodiment, a rectangular insert 801 is provided through the center of the blade pad 8, extending from front to back. The insert 801 is slidably connected to the mounting post 603 to securely lock the blade pad 8. When the scraper assembly frame 6 moves horizontally, the parallel blade 7 scrapes the surface of the platform guardrail 2. Simultaneously, the pad scraper 803 scrapes the gaps between adjacent guardrail railings 202, peeling off marine organisms attached to the gaps between the guardrail railings 202 and preventing marine organisms from attaching to the gaps between the guardrail railings 202. The gaps prevent blockages, improve cleaning efficiency, and ensure simultaneous cleaning of the surface of the guardrail 202 and the gaps between the two poles. This prevents marine organisms from adhering to the gaps between the two poles and reducing flow performance. For the cleaning, maintenance, and replacement of the parallel blades 7 and the pad scraper 803, the threaded connection between the outer frame plate 601 and the inner frame plate 602 can be disassembled after the platform guardrail 2 is removed, and the scraper assembly frame 6 can be disassembled to remove the parallel blades 7 and the blade pad 8. The blade disassembly and installation are convenient, reducing the maintenance and upkeep costs of the device.
[0028] In addition, both the parallel blade 7 and the pad scraper 803 have blade structures with bent edges, which have good elasticity. In the working state, the cutting edge and the surface of the guardrail 202 are at a certain angle. The elasticity of the blade makes the cutting edge fit with the guardrail 202, maintaining a more efficient peeling effect.
[0029] In Example 2, based on Example 1, a lower platform cavity 101 is provided at the bottom of the main body 1 of the seabed observation platform. Nine counterweight studs 102 are evenly connected inside the lower platform cavity 101. The counterweight studs 102 are vertically welded to the top surface of the lower platform cavity 101. A counterweight block 9 is provided inside the lower platform cavity 101. A connecting screw hole 901 is provided through the center of the counterweight block 9. The connecting screw hole 901 is spirally connected to the counterweight stud 102. The nine counterweight blocks 9 can be selectively installed at the bottom of the main body 1 of the seabed observation platform. For seabed areas with strong and unstable currents, a larger number of counterweight blocks 9 can be installed at the bottom of the platform to increase the platform weight, improve the platform's resistance to wind and waves, and make the platform more stable on the seabed. For areas with weak and relatively stable currents, some or all of the counterweight blocks 9 can be removed to reduce the weight of the platform, reduce transportation costs, and make the seabed observation platform easier to pick up and place.
[0030] In Example 3, based on Example 1, vertical guide plates 10 are fixedly connected to the four corners of the main body 1 of the seabed observation platform. A spiral pusher cylinder 11 is fixedly connected to the top of the vertical guide plate 10. Anchoring drive components 12 are slidably connected to the outside of the vertical guide plate 10. The lower end of the push rod of the spiral pusher cylinder 11 is fixedly connected to the anchoring drive component 12, and a spiral anchor 13 is fixedly connected to the rotating shaft of the anchoring drive component 12. Both the spiral pusher cylinder 11 and the anchoring drive component 12 are connected to a power storage power supply 502 via electrical connection lines and remotely connected to a remote control terminal via wireless signals. During the installation of the observation platform, the spiral pusher cylinder 11 and the anchoring drive component 12 are simultaneously activated remotely. As the spiral pusher cylinder 11 pushes the anchoring drive component 12 downwards, the anchoring drive component 12 drives the spiral anchor 13 to rotate, causing the spiral anchor 13 to rotate and move downwards to insert into the seabed soil layer, further improving the stability of the seabed observation platform. When removing the observation platform, the spiral pusher cylinder 11 and the anchoring drive component 12 are activated in the reverse direction, causing the spiral anchor 13 to rotate in the opposite direction and move upwards, thus being pulled out of the soil layer.
[0031] The working principle of this embodiment is as follows: First, before installing the main body 1 of the seabed observation platform, a buoy is connected to the top of the main body 1 of the seabed observation platform via ropes. The buoy is equipped with an alarm device, a wave sensor, and a Beidou positioning system to prevent loss and provide real-time location information. Data is collected in conjunction with wave parameters such as wave height, period, and wave direction. For seabed areas with strong and unstable currents, a larger number of counterweights 9 can be installed at the bottom of the platform to increase its weight and improve its resistance to wind and waves, making the platform more stable on the seabed. For areas with weak and relatively stable currents, some or all of the counterweights 9 can be removed to reduce the platform's weight, lower transportation costs, and make the seabed observation platform easier to place and retrieve. The main body 1 of the seabed observation platform is then slowly placed in the observation area using equipment and ropes. The platform's protective cover 2 monitors the sea... The sensors and detectors on the main body 1 of the bottom observation platform are protected. The operator starts the cleaning drive 5 periodically through the remote terminal. If marine organisms are attached to the outside of the protective railing 202, when the cleaning drive 5 is started, the linkage screw 4 is driven to rotate through the gear and rack transmission of the active gear 501 and the synchronous bevel gear 401 of the screw. Through the synchronous meshing connection of multiple sets of screw synchronous bevel gears 401, four sets of linkage screws 4 are driven to rotate synchronously. When the linkage screw 4 rotates, it forms a spiral transmission with the spiral push cylinder 605, which pushes the scraper assembly frame 6 to slide along the protective railing 202, so that the parallel blade 7 and the pad scraper 803 scrape on the surface of the protective railing 202, which can peel off the marine organisms attached to the outer surface of the protective railing 202, and avoid the situation where the marine organisms attached to the surface of the protective railing 202 reduce the flow performance and affect the detection accuracy.
[0032] When the main body 1 of the seabed observation platform is reinforced after reaching the seabed, the spiral push cylinder 11 and the anchoring drive component 12 are remotely activated. While the spiral push cylinder 11 pushes the anchoring drive component 12 down, the anchoring drive component 12 drives the spiral anchor 13 to rotate, causing the spiral anchor 13 to rotate and move down to insert into the seabed soil layer, which further improves the stability of the seabed observation platform. When the observation platform is withdrawn, the spiral push cylinder 11 and the anchoring drive component 12 are activated in the opposite direction, causing the spiral anchor 13 to rotate in the opposite direction and move up, and be pulled out of the soil layer.
[0033] For platform maintenance, after the platform is retrieved, the platform cover 2 is removed. Using tools, the threaded connectors on the outside of the scraper assembly frame 6 are disassembled and separated from the outer frame plate 601 and the inner frame plate 602. The two parallel blades 7 and the blade pad 8 are then gradually disassembled. The parallel blades 7 and the blade pad scraper 803 are cleaned or replaced. Then, the parallel blades 7 and the blade pad 8 are reinstalled between the outer frame plate 601 and the inner frame plate 602. The outer frame plate 601 and the inner frame plate 602 are fixed with threaded connectors. The scraper assembly frame 6 is then reassembled to complete the maintenance of the observation platform.
[0034] The following points should be noted in this article: 1. The accompanying drawings of the embodiments disclosed herein only relate to the structures involved in the embodiments disclosed herein; other structures can be referred to in general design.
[0035] 2. Where there is no conflict, the embodiments of this disclosure and the features in the embodiments can be combined with each other to obtain new embodiments.
[0036] The above are merely specific embodiments of this disclosure, but the scope of protection of this disclosure is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the scope of the technology disclosed in this disclosure should be included within the scope of protection of this disclosure. Therefore, the scope of protection of this disclosure should be determined by the scope of the claims.
Claims
1. A seabed observation platform resistant to wind, waves, and biofouling, comprising: The main body (1) of the seabed observation platform is characterized in that a platform cover (2) is provided above the main body (1), and four cover columns (201) are provided below the platform cover (2). A cover railing (202) is installed horizontally between adjacent cover columns (201). A gear cover (3) is fixedly connected to the four cover columns (201). A linkage screw (4) is rotatably connected between two adjacent gear covers (3) through bearings and sealing rings. The two ends of the linkage screw (4) are connected to the screw synchronous bevel gear (401) through interference fit. The two linkage screws (4) located on adjacent surfaces are perpendicular, and the screw synchronous bevel gear (401) at the mating ends of the two adjacent linkage screws (4) are meshed. The gear cover (3) on the front right side A cleaning drive component (5) is fixedly connected to the right surface of the cleaning drive component (5). The rotating shaft of the cleaning drive component (5) is fixedly connected to a drive gear (501). The drive gear (501) is located inside the gear cover (3). The drive gear (501) meshes with a lead screw synchronous bevel gear (401). The cover railing (202) is slidably connected to a scraper assembly frame (6). The outer surface of the scraper assembly frame (6) is fixedly connected to a spiral push cylinder (605). The spiral push cylinder (605) is spirally connected to a linkage screw (4). The threads of two adjacent linkage screws (4) are opposite. Two parallel blades (7) are fixedly connected inside the scraper assembly frame (6). The two parallel blades (7) are respectively attached to the inner and outer surfaces of the cover railing (202).
2. The seabed observation platform resistant to wind, waves, and biofouling according to claim 1, characterized in that, The bottom of the main body (1) of the seabed observation platform is provided with a lower platform cavity (101). Nine counterweight studs (102) are evenly connected inside the lower platform cavity (101). The counterweight studs (102) are vertically welded to the top surface of the lower platform cavity (101).
3. The seabed observation platform resistant to wind, waves, and biofouling according to claim 2, characterized in that, The lower cavity (101) of the platform is provided with a counterweight block (9), and a connecting screw hole (901) is provided in the center of the counterweight block (9), and the connecting screw hole (901) is spirally connected to the counterweight stud (102).
4. The seabed observation platform resistant to wind, waves, and biofouling according to claim 3, characterized in that, The cleaning drive unit (5) is connected to an energy storage power supply (502) via an electrical connection line. The energy storage power supply (502) is fixedly connected inside the lower cavity (101) of the platform. The cleaning drive unit (5) is connected to a remote control terminal via a wireless signal.
5. A seabed observation platform resistant to wind, waves, and biofouling according to claim 4, characterized in that, The scraper assembly frame (6) is a rectangular frame formed by bolting together an outer frame plate (601) and an inner frame plate (602). The scraper assembly frame (6) is perpendicular to the upper surface of the main body (1) of the seabed observation platform. A parallel blade (7) is attached to the front and rear walls of the scraper assembly frame (6).
6. A seabed observation platform resistant to wind, waves, and biofouling according to claim 5, characterized in that, The outer frame plate (601) is fixedly connected to the outer surface of the spiral push cylinder (605), and the outer frame plate (601) has a rectangular perforated outer frame socket (604) through it. The outer surface of the inner frame plate (602) is vertically connected to an assembly plug (603) with a rectangular cross-section, and the assembly plug (603) is tightly inserted into the outer frame socket (604).
7. A seabed observation platform resistant to wind, waves, and biofouling according to claim 6, characterized in that, The parallel blade (7) has a blade insertion port (701) through it. The blade insertion port (701) is slidably connected to the mounting post (603). A blade pad (8) is provided between the two parallel blades (7). The blade pad (8) is located in the gap between the two guardrails (202).
8. A seabed observation platform resistant to wind, waves, and biofouling according to claim 7, characterized in that, The blade pad (8) has two scraper slots (802), and a pad scraper (803) is tightly inserted inside the scraper slot (802). The blade of the pad scraper (803) is in contact with the guardrail (202).
9. A seabed observation platform resistant to wind, waves, and biofouling according to claim 6, characterized in that, The blade pad (8) has a rectangular pad slot (801) that runs through the center from front to back, and the pad slot (801) is slidably connected to the mounting post (603).
10. A seabed observation platform resistant to wind, waves, and biofouling according to claim 1, characterized in that, Vertical guide plates (10) are fixedly connected to the four corners of the main body (1) of the seabed observation platform. A spiral push cylinder (11) is fixedly connected to the top of the vertical guide plate (10). An anchoring drive component (12) is slidably connected to the outside of the vertical guide plate (10). The lower end of the push rod of the spiral push cylinder (11) is fixedly connected to the anchoring drive component (12). A spiral anchor (13) is fixedly connected to the rotating shaft of the anchoring drive component (12).