Sustainable energy supply system of underwater wearable equipment

Abstract

The invention relates to a sustainable energy supply system for underwater wearable equipment, and aims to provide a reliable and efficient energy supply scheme to meet the long-time use requirement of the underwater wearable equipment. The system utilizes renewable energy sources and energy storage technology of high energy density to ensure continuous work of equipment and safety of users.

Description

Technical Field

[0001] This invention relates to a sustainable energy supply system, and more particularly to a sustainable energy supply system for underwater wearable equipment. Background Technology

[0002] Current underwater wearable equipment often relies on battery power, but battery capacity is limited and cannot meet the needs of long-term use. Traditional energy supply solutions also include the use of internal combustion engines and external power cables, but these methods suffer from energy waste, environmental pollution, and usage limitations. Therefore, a sustainable and efficient energy supply system is needed to improve the performance of underwater wearable equipment. Summary of the Invention

[0003] The present invention provides a sustainable energy supply system for underwater wearable equipment, comprising the following components: a renewable energy collector 100: the system includes a renewable energy collector for collecting renewable energy sources, such as solar energy or hydroelectric energy, in the underwater environment.

[0004] The renewable energy collector 100 can employ solar panels, water turbines, or other suitable energy harvesting equipment to effectively convert energy resources in the underwater environment into electrical energy.

[0005] Energy storage device 101: The system of the present invention also includes an energy storage device for storing energy collected by the renewable energy collector.

[0006] The energy storage device 101 employs high-energy-density batteries, supercapacitors, or hydrogen energy storage technologies to ensure high energy density, large capacity, and stable release performance over a long period of time.

[0007] Energy Management System 102: The system also includes an energy management system for monitoring and managing the energy in the energy storage device and for making reasonable energy allocation based on the energy needs of the wearable equipment.

[0008] The energy management system 102 has an energy conversion and regulation module to adapt to different types of underwater wearable equipment and optimize energy utilization efficiency according to real-time needs.

[0009] Energy transfer system 103: The system of the present invention also includes an energy transfer system for transferring stored energy to underwater wearable equipment.

[0010] The energy transfer system 103 can use wireless charging technology, wire transmission or other suitable energy transfer methods to achieve convenient energy supply for underwater wearable equipment.

[0011] User Interface 104: To facilitate users in monitoring and operating the energy supply system, the present invention also provides a user interface.

[0012] The user interface 104 displays the status information of the energy storage device and energy management system to the user through a display screen, indicator lights or other suitable display devices, and provides an operating interface to adjust the parameters of the energy supply system.

[0013] Intelligent Algorithm Optimization 105: To further improve energy utilization efficiency and system performance, the system of the present invention also includes an intelligent algorithm unit.

[0014] Based on the working mode of wearable equipment, environmental conditions, and user needs, this intelligent algorithm unit automatically adjusts the operation strategy and energy allocation scheme of the energy management system by monitoring and analyzing the status of the energy supply system and the energy consumption of the wearable equipment in real time, so as to achieve the best energy utilization effect.

[0015] Safety protection mechanism 106: To ensure the safe operation of the energy supply system, the system of the present invention also includes a safety protection mechanism.

[0016] This mechanism monitors parameters such as temperature, voltage, and current of the energy supply system to detect abnormalities in a timely manner and take corresponding protective measures, such as overheat protection, overvoltage protection, and overcurrent protection, to prevent system failure or damage and ensure user safety.

[0017] External energy replenishment 107: To meet the energy needs of long-term underwater activities, the system of the present invention can be connected to an external energy system or power supply network.

[0018] In this way, when the energy storage device is insufficient, the system can charge the energy storage device through an external energy replenishment interface to extend the usage time of underwater wearable equipment.

[0019] Applicable underwater wearable equipment 108: The sustainable energy supply system of the present invention is applicable to various underwater wearable equipment, including but not limited to diving suits, diving helmets, underwater propulsion devices, etc.

[0020] The system's components and parameters can be customized and adjusted according to the specific type of wearable equipment and usage requirements to adapt to different application scenarios.

[0021] Environmental monitoring and adaptability 109: In order to better adapt to the underwater environment and provide precise energy supply, the system of the present invention also includes sensors and adaptive functions.

[0022] Sensors are used to monitor the energy resources of the underwater environment, such as solar radiation intensity and water flow speed, and transmit this data to the energy management system.

[0023] Based on sensor data, the energy management system can adjust energy harvesting and distribution strategies in real time to maximize the use of renewable energy and meet the energy needs of wearable devices.

[0024] Scalability and modular design 110: The system of the present invention adopts scalability and modular design, which enables it to be customized and upgraded according to specific needs.

[0025] The components are connected via standardized interfaces, facilitating assembly and replacement. Furthermore, the system is expandable, allowing for the addition of more renewable energy collectors, energy storage devices, or energy management modules as needed to meet greater energy demands or requirements in special operating environments.

[0026] Environmental friendliness and sustainability: The system of this invention is committed to environmental friendliness and sustainability. By utilizing renewable energy for energy harvesting and storage, it reduces dependence on traditional energy sources, thereby reducing carbon emissions and environmental pollution.

[0027] Meanwhile, the system's efficient energy management and optimization algorithms make energy utilization more efficient, reduce energy waste, and improve the system's sustainability and lifespan.

[0028] Additional functions and integration 112: The system of the present invention can also integrate additional functions, such as communication equipment, data recording and transmission, navigation system, etc., to meet the diverse needs of underwater wearable equipment.

[0029] These additional features can be tightly integrated with the energy supply system, sharing energy resources and data, and enhancing the functionality and performance of the entire underwater wearable equipment system.

[0030] Data monitoring and analysis 113: In order to provide monitoring and analysis of the performance of energy supply systems and wearable equipment, the system of the present invention also includes data monitoring and analysis functions.

[0031] By acquiring key parameter data from energy supply systems and wearable devices through sensors and other monitoring equipment, and storing and analyzing this data, users can monitor key data such as energy consumption, energy storage device status, and energy conversion efficiency in real time to optimize energy management and system performance, as well as perform troubleshooting and maintenance.

[0032] Energy recovery and reuse 114: In order to maximize the use of energy resources, the system of the present invention also has the function of energy recovery and reuse.

[0033] Some energy generated during the use of underwater wearable equipment, such as frictional energy and thermal energy, can be collected and converted by energy recovery devices and then supplied to the wearable equipment or stored in energy storage devices.

[0034] This method of energy recovery and reuse further improves energy efficiency and system sustainability.

[0035] Adaptive charging and energy management 115: In order to better cope with different working scenarios and needs, the system of the present invention has adaptive charging and energy management functions.

[0036] Based on changes in the underwater environment and the energy demands of wearable equipment, the system can automatically adjust its energy harvesting, storage, and distribution strategies to achieve optimal energy utilization.

[0037] This adaptive energy management approach ensures that the energy supply system always meets the energy needs of wearable devices and optimizes system performance.

[0038] Remote monitoring and control 116: To facilitate remote monitoring and control of the energy supply system, the system of this invention has remote communication and control functions. Users can remotely monitor and control the status and operating parameters of the energy supply system via wireless communication or Internet connection.

[0039] This remote monitoring and control method enables users to understand the system's operating status in a timely manner, perform remote troubleshooting and adjustments, and improve the system's reliability and operability.

[0040] Multiple energy inputs and hybrid energy utilization 117: To enhance the stability and adaptability of energy supply, the system of the present invention supports multiple energy inputs and hybrid energy utilization.

[0041] In addition to renewable energy collectors, the system can also accept other energy inputs, such as conventional electricity supply and fuel cells. Through multiple energy inputs and hybrid energy utilization, the system can flexibly adjust energy sources according to actual conditions, ensuring the continuity and reliability of energy supply. Attached Figure Description

[0042] Figure 1 This is a system structure diagram of the present invention. Figure 2 This is a structural diagram of the energy transmission system of the present invention.

[0043] The following is a description of a specific embodiment of the sustainable energy supply system for underwater wearable equipment of the present invention: The renewable energy collector uses solar panels as energy collection devices.

[0044] Solar panels are installed on the surface of wearable equipment, absorbing sunlight and converting it into electricity. The solar panels are connected to an energy management system, which transmits the collected solar power via cables.

[0045] The energy storage device uses a high-energy-density lithium-ion battery. This battery has high energy storage capacity and long lifespan.

[0046] The energy storage device is connected to an energy management system to store electrical energy from renewable energy collectors and supply energy to underwater wearable equipment when needed.

[0047] The energy management system consists of a circuit control unit, an energy conversion module, and an energy distribution module. The circuit control unit is responsible for monitoring the status of energy storage devices and renewable energy collectors, as well as receiving environmental parameter data from sensors.

[0048] The energy conversion module converts the DC power stored in the energy storage device into voltage and current suitable for use with underwater wearable equipment. The energy distribution module rationally allocates energy based on the energy requirements of the wearable equipment and real-time monitoring data to ensure a stable energy supply.

[0049] The energy transfer system uses wireless charging technology for energy transfer. The system includes a wireless charger and a receiver on wearable equipment.

[0050] Wireless chargers transmit energy to a receiving device through electromagnetic induction, enabling convenient charging of wearable devices.

[0051] User Interface: The user interface includes a display screen and operation buttons. The display screen shows the status information of the energy storage device and energy management system, such as battery capacity and energy conversion efficiency. The operation buttons allow users to operate the energy supply system, such as starting / stopping charging and adjusting energy distribution.

[0052] The intelligent algorithm unit monitors data from the energy supply system and wearable devices, and optimizes energy management using preset algorithms. Based on real-time data and set optimization goals, the algorithm automatically adjusts energy allocation strategies to improve energy efficiency and system performance.

[0053] The safety protection mechanism includes functions such as overheat protection, overvoltage protection, and overcurrent protection. When an abnormality occurs in the energy storage device or energy management system, the safety protection mechanism will automatically cut off the energy supply to protect the safety of wearable equipment and users.

[0054] The system's environmental monitoring function uses sensors to monitor the energy resources of the underwater environment. These sensors measure parameters such as solar radiation intensity, water flow velocity, and temperature, and transmit this data to the energy management system.

[0055] The energy management system adjusts energy harvesting and distribution strategies in real time based on sensor data to maximize the use of renewable energy and meet the energy needs of wearable devices.

[0056] The system of this invention adopts an scalable and modular design, enabling it to be customized and upgraded according to specific needs. Standardized interfaces are used to connect the various components, facilitating assembly and replacement.

[0057] The system can be equipped with more renewable energy collectors, energy storage devices, or energy management modules as needed to meet greater energy demands or requirements in special working environments.

[0058] The system of this invention is committed to environmental friendliness and sustainability. By utilizing renewable energy for energy harvesting and storage, it reduces dependence on traditional energy sources, thereby lowering carbon emissions and environmental pollution.

[0059] The system's efficient energy management and optimization algorithms make energy utilization more efficient, reduce energy waste, and improve the system's sustainability and lifespan.

[0060] The system of the present invention can integrate additional functions, such as communication equipment, data recording and transmission, navigation system, etc., to meet the diverse needs of underwater wearable equipment.

[0061] These additional features can be tightly integrated with the energy supply system, sharing energy resources and data, and enhancing the functionality and performance of the entire underwater wearable equipment system.

[0062] The system's data monitoring and analysis functions acquire key parameter data of the energy supply system and wearable equipment through sensors and other monitoring devices, and then store and analyze them.

[0063] Users can monitor data in real time to understand key information such as energy consumption, energy storage device status, and energy conversion efficiency, thereby optimizing energy management and system performance, and performing troubleshooting and maintenance.

[0064] To maximize the utilization of energy resources, the system has energy recovery and reuse functions. Some energy generated during the use of underwater wearable equipment, such as frictional energy and thermal energy, can be collected and converted through the energy recovery device and then supplied to the wearable equipment again or stored in the energy storage device.

[0065] This method of energy recovery and reuse further improves energy efficiency and system sustainability.

[0066] The system of this invention has automatic charging and energy management functions. When the renewable energy collector detects sufficient solar radiation, the system automatically starts the charging process and transfers the energy to the energy storage device for storage.

[0067] The energy management system intelligently manages the supply and distribution of energy based on the energy needs of wearable devices and the status of energy storage devices, ensuring that wearable devices receive a stable energy supply when needed.

[0068] The energy conversion module employs high-efficiency energy conversion devices, such as DC-DC converters and power management chips, to improve energy conversion efficiency.

[0069] By optimizing the energy conversion process and reducing energy loss, the system can utilize stored energy more effectively, extend the lifespan of wearable equipment, and reduce energy consumption.

[0070] Since the system is used in an underwater environment, waterproof and corrosion-resistant design are key considerations. All components and connections are encapsulated and reinforced with waterproof and corrosion-resistant materials to protect the system from water pressure, moisture, and corrosion.

[0071] The system supports remote monitoring and control functions, allowing users to monitor the status and performance of the energy supply system in real time through remote communication devices such as smartphones or computers.

[0072] The remote control function allows users to remotely start and stop the energy supply, adjust the energy distribution, and perform fault diagnosis and maintenance operations, improving the system's ease of operation and manageability.

[0073] To enhance the flexibility and reliability of energy supply, the system supports multiple energy inputs and hybrid energy utilization. In addition to renewable energy collectors, the system can also accept other energy inputs, such as conventional power supply or fuel cells.

[0074] By employing multiple energy inputs and hybrid energy utilization, the system can select the optimal energy source based on actual conditions, ensuring a continuous and stable energy supply.

[0075] The above specific embodiments are only used to help understand the core idea of ​​the present invention and should not be used to limit the present invention. For those skilled in the art, any modifications or equivalent substitutions made to the present invention based on the idea of ​​the present invention, and any changes made to the specific embodiments and application scope, should be included within the protection scope of the present invention.

Claims

1. A sustainable energy supply system for underwater wearable equipment, characterized in that... Includes the following components: a. A renewable energy collector for collecting renewable energy from the underwater environment; b. Energy storage devices for storing energy collected by renewable energy collectors; c. An energy management system for monitoring and managing the energy in the energy storage device and allocating it rationally according to the energy needs of wearable equipment; d. An energy transfer system for transferring stored energy to underwater wearable equipment; e. User interface, used to display status information of energy storage devices and energy management systems, and to provide an operating interface to adjust parameters of the energy supply system.

2. According to claim 1, the renewable energy collector may be a solar panel, a water turbine, or other suitable energy harvesting equipment; the energy storage device may be a high-energy-density battery, a supercapacitor, or hydrogen energy storage, etc.; the energy transmission system may employ wireless charging technology, wire transmission, or other suitable energy transmission methods; the energy management system includes an energy conversion and regulation module to adapt to different types of wearable equipment; the user interface provides status information display and an operation interface to achieve real-time monitoring and parameter adjustment; the underwater wearable equipment may be a diving suit, a diving helmet, an underwater propulsion device, or other suitable underwater wearable equipment; the renewable energy collector and the energy storage device may be connected to the underwater wearable equipment via wires or wirelessly.

3. According to claim 1, the energy management system can adaptively adjust according to the energy demand of the underwater wearable equipment to optimize energy utilization efficiency; the system further includes sensors for monitoring the energy resources of the underwater environment and the working status of the underwater wearable equipment, and adjusting the operating parameters of the energy supply system according to the monitoring results; the energy storage device further includes an energy management unit for monitoring the energy status of the energy storage device, managing the storage and release of energy, and communicating with the energy management system; the energy transmission system may include a power transmission device for efficiently transmitting the stored energy to the underwater wearable equipment; the renewable energy collector and the energy storage device can perform energy conversion and optimization through an energy converter to improve energy utilization efficiency; the energy management system further includes an energy monitoring device for real-time monitoring and recording of the energy status of the energy storage device and providing feedback to the user interface. The system also includes an intelligent control unit for automatically optimizing the working mode and parameters of the energy supply system to meet the different usage scenarios and energy demands of the underwater wearable equipment.

4. According to claim 1, the energy transmission system may include an energy transmission coil and an energy receiving device for realizing wireless energy transmission; the system further includes a current protection device for monitoring and protecting the current output of the energy supply system to ensure safe and stable energy transmission; when the energy transmission system uses wireless charging technology, it includes a wireless charging device with power transmission function and an underwater wearable device for receiving power; when the energy transmission system uses wire transmission, it includes a wire or cable connecting the underwater wearable device and the energy storage device; the renewable energy collector further includes one or more sensors for monitoring the intensity, direction, or other relevant parameters of renewable energy in the environment; the energy storage device further includes an energy management module for monitoring and controlling the energy flow, storage capacity, and charging / discharging status in the energy storage device; the energy management system includes one or more control units for real-time monitoring of the energy demand of the wearable device and adjusting the parameters of energy distribution and conversion to meet the demand; the user interface can provide the user with status information of the energy storage device and the energy management system through a display screen, indicator lights, or other suitable display devices.

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