Energy self-sufficient multi-format integrated offshore comprehensive service platform
Patent Information
- Application Number
- CN202610887943.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2026-06-18
- Publication Date
- 2026-09-25
AI Technical Summary
然而,传统的海洋开发模式中,渔业养殖、能源生产、旅游观光等功能往往各自为政,存在海域空间利用率低、基础设施重复建设、能源供应不稳定等问题
本发明通过集成垂直轴风机、太阳能光伏板及储能系统构建独立微电网,实现了平台自身的零碳运行与海上能源自给,并为停靠的电动子船提供清洁充电服务,有效解决了深远海开发的电力瓶颈问题,推动能源绿色转型。通过采用模块化平台主体,并将发电区域、养殖网箱区域、充电站及多层功能舱室进行立体化布局,实现了海洋空间的复合高效利用,避免了传统开发模式中的功能割裂与重复建设。通过配置多艘电动捕捞子船及群控系统,利用平台充电站为子船快速补能,并结合分拣中转舱与冷冻库舱实现渔获即时过驳与暂存,大幅提升了渔业生产效率与作业安全性。本发明通过集成污水处理单元、海水淡化装置与蔬菜种植区,实现了资源循环利用与零排放目标。
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Figure CN122808906A_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of marine engineering technology, and in particular to a multi-industry integrated marine service platform that integrates energy production, aquaculture, marine fishing, tourism, and logistics transshipment, achieving energy self-sufficiency. Background Technology
[0002] With the deepening of the national strategy to build a maritime power, developing a green, intensive, and efficient marine economy has become an important direction. However, in the traditional marine development model, functions such as aquaculture, energy production, and tourism are often carried out independently, resulting in problems such as low utilization of marine space, redundant infrastructure construction, and unstable energy supply. Especially in deep-sea areas, the severe power shortage problem seriously restricts the intelligent upgrading of marine ranches and the development of marine cultural tourism industry. Currently, there is a lack of a comprehensive platform that can physically integrate and synergize the energy of multiple marine industry functions, realize the three-dimensional and composite utilization of marine space, and possess independent energy supply capabilities. Summary of the Invention
[0003] In view of this, in order to solve the problems existing in the technical background, the present invention proposes a multi-industry integrated marine service platform with energy self-sufficiency. Specifically, it includes the following: A multi-industry integrated marine service platform with self-sufficiency in energy, characterized in that it comprises: a platform body, the platform body including a power generation area, an aquaculture cage area, a charging station and a docking and charging area; the power generation area provides power to the platform body and vessels docked in the docking and charging area; the aquaculture cage area is located on the platform body.
[0004] In some embodiments of the present invention, the platform body adopts a modular structure, which is assembled from multiple unit structures and is equipped with at least one power compartment. The power compartment is equipped with an electric drive device for providing power for the platform body to move, turn and position.
[0005] In some embodiments of the present invention, the power generation area includes a vertical axis wind turbine arranged above the main deck of the platform and solar photovoltaic panels laid on the deck and the top of the building; the main platform is also equipped with an energy storage system for storing the power generated by the power generation area and supplying it to the charging station.
[0006] In some embodiments of the present invention, the platform body includes an upper deck, a first deck below deck, and a second deck below deck; the upper deck is equipped with the power generation area, sightseeing and leisure area, and charging station; the first deck below deck is equipped with a living cabin, a sightseeing cabin, and a control cabin; and the second deck below deck is equipped with a ballast tank, an energy storage system, and a cold storage cabin.
[0007] In some embodiments of the present invention, the platform body also integrates a sorting and transfer cabin and lifting equipment for transferring, sorting and temporarily storing the catch carried by fishing vessels docked in the docking and charging area.
[0008] In some embodiments of the present invention, multiple electric fishing mother vessels are also included, which operate in conjunction with the main platform. The electric fishing mother vessels can dock at the docking and charging area and be recharged by the charging station. The main platform is equipped with a group control system for unified scheduling of the multiple electric fishing mother vessels.
[0009] In some embodiments of the present invention, the platform body also includes a helicopter landing pad and a vegetable growing area set on the deck.
[0010] In some embodiments of the present invention, the platform body is further configured with a sewage treatment unit and a seawater desalination device. The sewage treatment unit is used to treat domestic sewage and supply it to the vegetable planting area, and the seawater desalination device is used to provide fresh water.
[0011] In some embodiments of the present invention, the platform body further includes a dynamic positioning system and an anchoring system, which are used to enable the platform body to autonomously hover, move short distances, and stay stably for a long time.
[0012] The above technical solution has the following beneficial effects: This invention integrates a vertical axis wind turbine, solar photovoltaic panels, and an energy storage system to construct an independent microgrid, achieving zero-carbon operation and self-sufficiency in marine energy for the platform itself. It also provides clean charging services for docked electric fishing vessels, effectively solving the power bottleneck problem in deep-sea development and promoting a green energy transition. By adopting a modular platform body and arranging the power generation area, aquaculture cage area, charging station, and multi-layered functional compartments in a three-dimensional layout, it achieves the composite and efficient utilization of marine space, avoiding functional fragmentation and redundant construction in traditional development models. By configuring multiple electric fishing vessels and a group control system, the platform's charging station provides rapid power replenishment for the vessels. Combined with sorting and transfer compartments and cold storage compartments, it enables immediate transfer and temporary storage of catches, significantly improving fishery production efficiency and operational safety. This invention also integrates a wastewater treatment unit, seawater desalination device, and vegetable planting area, achieving resource recycling and zero-emission goals. Attached Figure Description
[0013] Figure 1 This is a top view structural diagram of a multi-industry integrated marine service platform that is energy self-sufficient; Figure 2 This is a side view of a multi-business integrated marine service platform that is energy self-sufficient; Figure 3This is a schematic diagram of the cluster structure of a multi-industry integrated marine service platform for energy self-sufficiency according to the present invention; In the diagram: 1-Power generation area; 2-Aquaculture cage area; 3-First level below deck; 4-Second level below deck; 5-Charging station; 6-Power compartment; 7-Mother ship; 8-Dock charging area; 9-Helicopter landing pad. Detailed Implementation
[0014] 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 embodiments of the present invention, and not all embodiments. Based on the 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.
[0015] See Figure 1 , Figure 2 and Figure 3 The above describes a multi-functional, energy-sufficient marine integrated service platform, comprising a platform body, which includes a power generation area, an aquaculture cage area, a charging station, and a docking and charging area. The power generation area provides electricity to the platform body and vessels docked in the docking and charging area. The aquaculture cage area is located on the platform body.
[0016] The platform body adopts a modular structure, which is assembled from multiple unit structures and is equipped with at least one power compartment. The power compartment is equipped with an electric drive device to provide power for the platform body to move, turn and position.
[0017] The power generation area includes vertical axis wind turbines arranged above the main deck of the platform and solar photovoltaic panels laid on the deck and the top of the building; the main platform is also equipped with an energy storage system for storing the power generated by the power generation area and supplying it to the charging station.
[0018] The platform consists of an upper deck, a first deck below deck, and a second deck below deck. The upper deck houses the power generation area, sightseeing and leisure area, and charging station. The first deck below deck comprises a living cabin, a sightseeing cabin, and a control cabin. The second deck below deck includes ballast tanks, an energy storage system, and a cold storage cabin.
[0019] The platform also integrates a sorting and transfer cabin and lifting equipment, which are used to transfer, sort and temporarily store the catch carried by fishing vessels docked in the docking and charging area.
[0020] It also includes multiple electric fishing mother vessels that operate in conjunction with the main platform. These electric fishing mother vessels can dock at the docking and charging area and have their power replenished by the charging station. The main platform is equipped with a group control system for unified scheduling of the multiple electric fishing mother vessels.
[0021] The main body of the platform also includes a helicopter landing pad and a vegetable planting area set on the deck. The main body of the platform is also equipped with a sewage treatment unit and a seawater desalination device. The sewage treatment unit is used to treat domestic sewage and supply it to the vegetable planting area. The seawater desalination device is used to provide fresh water. The main body of the platform also includes a dynamic positioning system and an anchoring system to enable the main body of the platform to hover autonomously, move short distances, and stay stably for a long time.
[0022] Example 2, based on Example 1, features a modular, semi-submersible floating platform with overall dimensions of 75m × 40m × 6m. It is composed of 14 unit structures, each 15m × 5m × 6m in size, forming a stable rectangular frame. The 65m × 30m sea-level area enclosed within the platform frame serves as the aquaculture cage area. Intelligent aquaculture cages can be configured according to the aquaculture species and equipped with intelligent devices such as automatic feeding, water quality monitoring, and net cleaning robots.
[0023] Each of the four corner unit structures of the platform's main body is equipped with a power compartment, and each power compartment is equipped with a 100KW electric drive unit to provide power for the platform's movement, steering and positioning. Together with the dynamic positioning system and the mooring system, it enables the platform to achieve autonomous hovering and long-term stable residence.
[0024] The platform's power generation area consists of two parts: vertical axis wind turbines and solar photovoltaic panels. Fourteen 30kW vertical axis wind turbines are arranged on each unit structure, with a total power of 420kW. The turbines are 15 meters high and utilize the open offshore wind farm surrounding the platform. The solar photovoltaic panels, made of lightweight and flexible materials, are laid on the platform deck and part of the building roof, covering a total area of approximately 2,500 square meters and generating approximately 210kW of power. The generated energy is prioritized for use within the platform through an energy management system (EMS), with excess energy stored in an energy storage system (located on the second level below deck, forming a stable microgrid). A charging station, including DC fast charging and slow charging piles, is located on the platform deck to provide charging services for electric vessels docked in the charging area.
[0025] The platform's spatial layout achieves vertical functional layering. The upper deck houses vertical axis fans, solar photovoltaic panels, a sightseeing and leisure area, a vegetable growing area, a sorting and transfer cabin (including lifting equipment), and a charging station. The first level below deck contains living quarters, sightseeing cabins, and a control cabin, providing living quarters, entertainment, and platform control. The second level below deck contains ballast tanks, an energy storage system (lithium-ion or flow batteries), a large cold storage cabin, and a wastewater treatment unit.
[0026] This embodiment of the platform also includes 20 electric fishing boats, each 9m x 3m in size. Each boat is equipped with a 20kW permanent magnet synchronous motor and a 50kWh lithium iron phosphate battery. The hull is made of aluminum alloy to reduce weight and increase cargo capacity. The boats operate in a "high-frequency round-trip" mode, returning to the platform after 3-4 hours of fishing at sea. They then quickly charge for one hour at the charging station's fast-charging piles in the docking and charging area. Simultaneously, the platform's lifting equipment transfers the catch to the sorting and transfer cabin, where it is sorted and temporarily stored in the freezer. The platform has a group control system that monitors the battery level, location, and catch of all boats in real time, automatically plans the optimal return-to-charge route, and can recall all boats with a single click in the event of a sudden storm, achieving intelligent cluster control. The platform also has a 600kW diesel generator as an emergency backup power source.
[0027] Example 3, based on Example 1, optimizes and expands the charging method and functional modules. To improve automation and user experience, this example upgrades the charging method of the sub-boats to inductive wireless charging. Within the platform's docking and charging area, a wireless charging transmitting coil is pre-embedded below each sub-boat docking slot, and a corresponding receiving coil is installed on the bottom of the sub-boat's hull. When the sub-boat accurately docks in the designated slot, the charging process is automatically triggered, eliminating the need for manual plugging and unplugging of the charging gun, thus achieving efficient and convenient automated charging.
[0028] Example 4 expands the sightseeing and leisure area on the upper deck and adds a transparent underwater viewing corridor, allowing visitors to observe marine life in the aquaculture cages below the platform up close. A marine science exhibition hall is added on the first level below the deck, using virtual reality (VR) technology to allow visitors to experience deep-sea exploration and offshore energy production. The platform's living quarters have also been upgraded to guest rooms and equipped with seawater desalination equipment to provide an ample supply of fresh water. The treated wastewater from the wastewater treatment unit is entirely reused in the vegetable growing area on the upper deck, achieving water resource recycling and serving as a demonstration point for ecological agriculture.
[0029] Example 5, based on Example 1, focuses on large-scale deep-sea aquaculture scenarios, emphasizing the platform's modular expansion capabilities and deep synergy between the energy system and the aquaculture system. The main platform is still composed of 14 modular structures, but depending on the scale of aquaculture, additional modular structures of the same specifications can be added horizontally or vertically, expanding the overall platform from 75m × 40m to a larger rectangular size, such as 105m × 40m or 75m × 60m. Correspondingly, the area of the aquaculture cages also expands, forming a super-large closed recirculating aquaculture space.
[0030] To meet the energy demands of larger-scale aquaculture equipment, the capacity of vertical axis wind turbines and solar photovoltaic panels in the power generation area has been increased proportionally, and the energy storage system has also been expanded accordingly. The energy management system (EMS) is configured to prioritize ensuring stable power supply to the aquaculture system, ensuring that key indicators of the aquaculture environment (such as dissolved oxygen and water temperature) remain stable even under windless and sunless conditions. In this embodiment, the group control system is deeply integrated with the aquaculture system. For example, when the water quality monitoring system detects a decrease in dissolved oxygen in a localized area, the group control system can automatically dispatch nearby electric boats to dock at the platform for charging, reducing the instantaneous load on the platform's power grid, and instructing the EMS to prioritize power supply to the oxygenation equipment, ensuring aquaculture safety. Simultaneously, the platform's sorting and transfer compartments and cold storage compartments are optimized according to the market cycle of farmed fish, enabling integrated operations of large-scale harvesting, sorting, packaging, and cold chain storage, significantly improving the commercial operational efficiency of deep-sea aquaculture.
[0031] The basic principles and main features of the present invention have been described above. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are only illustrative of the principles of the present invention. Various changes and modifications can be made to the present invention without departing from the spirit and scope of the present invention. All such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of the invention is defined by the appended claims and their equivalents.
Claims
1. A multi-industry integrated marine service platform with energy self-sufficiency, characterized in that: include: The platform body includes a power generation area (1), an aquaculture cage area (2), a charging station (5), and a docking charging area (8); the power generation area (1) provides power to the platform body and the ships docked in the docking charging area (8); the aquaculture cage area (2) is located on the platform body.
2. The energy-self-sufficient, multi-industry integrated marine service platform according to claim 1, characterized in that, The platform body adopts a modular structure, which is composed of multiple unit structures and is equipped with at least one power compartment (6). The power compartment (6) is equipped with an electric drive device to provide power for the platform body to move, turn and position.
3. The energy-self-sufficient, multi-industry integrated marine service platform according to claim 1, characterized in that, The power generation area (1) includes a vertical axis wind turbine arranged above the main deck of the platform and solar photovoltaic panels laid on the deck and the top of the building; the main platform is also equipped with an energy storage system for storing the power generated by the power generation area (1) and supplying it to the charging station (5).
4. The energy-self-sufficient, multi-industry integrated marine service platform according to claim 1, characterized in that, The platform consists of an upper deck, a first deck below the deck (3), and a second deck below the deck (4). The upper deck is equipped with the power generation area (1), a sightseeing and leisure area, and a charging station (5). The first deck below the deck (3) is equipped with a living cabin, a sightseeing cabin, and a control cabin. The second deck below the deck (4) is equipped with a ballast tank, an energy storage system, and a cold storage cabin.
5. The energy-self-sufficient, multi-industry integrated marine service platform according to claim 1, characterized in that, The platform also integrates a sorting and transfer cabin and lifting equipment, which are used to transfer, sort and temporarily store the catch carried by fishing vessels docked in the docking and charging area (8).
6. The energy-self-sufficient, multi-industry integrated marine service platform according to claim 1, characterized in that, It also includes multiple electric fishing mother vessels (7) that operate in conjunction with the main body of the platform. The electric fishing mother vessels (7) can dock at the docking and charging area (8) and be replenished with power by the charging station (5). The main body of the platform is equipped with a group control system for unified scheduling of multiple electric fishing mother vessels (7).
7. The energy-self-sufficient, multi-industry integrated marine service platform according to claim 1, characterized in that, The main body of the platform also includes a helicopter landing pad (9) and a vegetable planting area set on the deck.
8. The energy-self-sufficient, multi-industry integrated marine service platform according to claim 1, characterized in that, The platform is also equipped with a sewage treatment unit and a seawater desalination device. The sewage treatment unit is used to treat domestic sewage and supply it to the vegetable planting area, and the seawater desalination device is used to provide fresh water.
9. A multi-industry integrated marine service platform for energy self-sufficiency according to claim 1, characterized in that, The platform body also includes a dynamic positioning system and an anchoring system, which are used to enable the platform body to hover autonomously, move short distances, and stay stably for a long time.