Energy storage power supply for outdoor operation and power supply system thereof
Through technical means such as modular LiFePO4 battery pack, composite protective case and smart power management module, the problem of inaccurate power management and untimely power switching in outdoor operations of the energy storage power system is solved, efficient utilization of electricity and stable power supply of equipment are achieved, and the adaptability and durability of outdoor operations are improved.
Patent Information
- Application Number
- CN202510498389.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-04-21
- Publication Date
- 2025-07-25
AI Technical Summary
The existing energy storage power system has problems such as inaccurate power management, untimely power supply switching, and single output ports in outdoor operations, resulting in low power utilization efficiency.
It adopts a modular LiFePO4 battery pack, composite protective shell, multi-protocol output interface group, smart power management module, adaptive power supply switching module, backup power selection module and intelligent power consumption equipment control module to realize real-time monitoring and dynamic adjustment of power, enrich interface types, and ensure power supply adaptability and stability.
It realizes precise management and reasonable distribution of electricity, improves the efficiency of power utilization, ensures stable power supply for outdoor operations, enhances the durability and adaptability of the equipment, and ensures normal operation in complex environments.
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Figure CN120377491A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of energy storage power supplies and power supply systems, and specifically to an energy storage power supply for outdoor operations and its power supply system. Background Art
[0002] With the increasing demand for outdoor operations, the application of energy storage power supplies and power supply systems is becoming more and more widespread. Most of the existing energy storage power supply systems adopt traditional battery management technologies, which have problems such as inaccurate power management, untimely power supply switching, and single output ports. In addition, the complexity and uncertainty of the outdoor environment also pose higher requirements for the protection design and backup power supply selection of energy storage power supplies. Although the existing technologies have improved in battery capacity and charging speed, there is still a large room for improvement in intelligent management and adaptability.
[0003] In the prior art, common solutions include using fixed battery packs, manually switching power supply modes, single-type output ports, etc. These solutions meet the basic power supply requirements to a certain extent, but cannot monitor and adjust the power in real time, and require manual switching of the power supply mode, resulting in low power utilization efficiency. Summary of the Invention
[0004] Aiming at the deficiencies of the prior art, the present invention provides an energy storage power supply for outdoor operations and its power supply system, which solves the problem of low utilization efficiency of the energy storage power supply caused by the inability to monitor and adjust the power in real time.
[0005] To achieve the above objectives, the present invention is realized through the following technical solutions: An energy storage power supply for outdoor operations, comprising: A modular LiFePO4 battery pack, composed of more than 4 hot-swappable battery units, with a total capacity of 4 kWh - 20 kWh expandable; A composite protective shell, made of a carbon fiber-reinforced polypropylene matrix and meeting the IP68 protection level; A multi-protocol output interface group, including a USB-C or PD3.1 fast charging interface, an XT60 DC interface, and an IEC60309 AC interface; A heat dissipation device, which controls the rotation speed of the fan based on the internal temperature of the energy storage power supply to adjust the heat dissipation capacity; A rotatable lighting module, integrated with a COB LED array with adjustable color temperature of 3000K - 6000K, supporting 270° three-dimensional adjustment.
[0006] Preferably, the composite protective shell includes: An outer bulletproof polycarbonate shell; An intermediate Kevlar fiber buffer layer; An inner electromagnetic shielding aluminum-magnesium alloy frame.
[0007] Preferably, the multi - protocol output interface group satisfies: DC output, adjustable at 12, 24, and 48 VDC, with a maximum continuous current of 100 A; AC output, automatically recognizes 110 VAC or 220 VAC, THD < 3%; Wireless output, supports Qi2.0 protocol, with a maximum transmit power of 30 W.
[0008] A power supply system for an energy storage power source used in outdoor operations includes: An intelligent power management module, used to monitor the power of electrical equipment in real - time, estimate the total power consumption, and dynamically generate a power supply strategy; An adaptive power supply switching module, used to switch between DC or AC power supply modes based on the device status detection result A backup power supply selection module, used to match a backup power supply through the positioning information and power performance data of the energy storage power source; An energy storage and charge - discharge management module, used to monitor, analyze, and calculate the battery charge - discharge capacity, life - decay balance, and temperature balance in real - time, and dynamically adjust the remaining battery power and the dynamic distribution of operating power; An intelligent electrical equipment control module, used to determine the target electrical equipment, obtain the processing logic maintained by the energy storage power source, and control the target electrical equipment according to the processing logic.
[0009] Preferably, the intelligent power management module includes a power monitoring unit, a power consumption estimation unit, and a power feedback unit; The power monitoring unit is used to monitor the power consumption data of electrical equipment in real - time through sensors; The power consumption estimation unit is used to collect the power data of each electrical equipment, and estimate the power consumption duration and calculate the estimated total power consumption through a long - short - term memory network model; The power feedback unit is used to reduce the power consumption duration by a preset ratio and plan the power consumption duration when the estimated total power consumption exceeds the total power of the power source.
[0010] Preferably, the adaptive power supply switching module includes a DC power supply component, an AC power supply component, and a device status detection unit; The DC power supply component uses a rectifier to provide direct current; The AC power supply component uses an inverter to provide alternating current; The device status detection unit is used to detect the working status when the device is inserted, preferentially uses DC power supply, and switches to AC power supply when abnormal.
[0011] Preferably, the backup power supply selection module includes a positioning unit and a backup power supply evaluation unit; The positioning unit is used to obtain the position of the device through GPS or Beidou positioning; The backup power supply evaluation unit is used to determine the applicable backup energy storage power supply for the working position according to the power supply duration matching degree of the energy storage power supply within the target range.
[0012] Preferably, the energy storage and charge-discharge management module includes a battery monitoring unit, a power distribution unit, and a thermal management unit; The battery monitoring unit is used to collect the voltage, current, temperature, and internal resistance of the battery pack in real time, and combine with the electrochemical impedance spectroscopy analysis technology to dynamically evaluate the remaining capacity, health status, and life attenuation trend of the battery; The power distribution unit is used to dynamically optimize the charge-discharge power distribution of the energy storage power supply according to the load demand prediction and the real-time status of the battery; The thermal management unit is used to control the heat dissipation device based on the temperature of the energy storage power supply to maintain the working temperature of the battery.
[0013] Preferably, the intelligent electrical equipment control module includes a target device determination unit, a processing logic acquisition unit, and a device control unit; The target device determination unit is used to identify the electrical equipment to be controlled through multimodal recognition technology; The processing logic acquisition unit is used to obtain the preset control logic of the energy storage power supply; The device control unit is used to remotely control the target device according to the logic.
[0014] Preferably, the preset control logic of the energy storage power supply includes charge-discharge control logic, device priority control logic, environmental factor control logic, and fault and anomaly handling logic.
[0015] The present invention provides an energy storage power supply and its power supply system for outdoor operations. It has the following beneficial effects: 1. By real-time monitoring the power consumption of electrical equipment and estimating the power consumption duration, the present invention accurately calculates the total estimated power consumption of all equipment, and recalculates and plans the total power consumption in real time, thereby realizing reasonable power distribution, avoiding power shortage or waste, ensuring stable power supply throughout the operation, and improving the power utilization efficiency.
[0016] 2. When detecting that the equipment is inserted into the power supply interface, the present invention first controls the DC power supply component to access the direct current, obtains the working state of the equipment, judges whether it starts normally. If it starts normally, the direct current supply continues; otherwise, it switches to the AC power supply component to access the alternating current, ensuring that all types of equipment can operate smoothly and improving the power supply adaptability.
[0017] 3. The rich interface types of the multi-protocol output interface group of the present invention meet the power consumption needs of different equipment, facilitating outdoor operators to keep the equipment fully charged at any time, and improving the versatility and practicality of the power supply.
[0018] 4. The composite protective housing of the present invention adopts multi-layer protection. The outer layer uses a bulletproof polycarbonate housing with excellent mechanical properties. The Kevlar fiber buffer layer in the middle layer can effectively absorb and disperse impact force. The inner layer of electromagnetic shielding aluminum-magnesium alloy frame has good electrical conductivity and low density, thus enhancing the durability of the device in complex outdoor environments.
[0019] 5. The present invention determines the range of the pre-device backup power supply according to the positioning information through the backup power supply selection module, obtains the actual working duration and the shortest power supply duration of the energy storage power supply within the range, and accordingly determines the backup energy storage power supply suitable for the working position, ensuring that when the main power supply has problems, it can be quickly switched to maintain uninterrupted operation. BRIEF DESCRIPTION OF THE DRAWINGS
[0020] Figure 1 It is a schematic diagram of the frame of an energy storage power supply for outdoor operations of the present invention; Figure 2 It is an architecture diagram of the power supply system of an energy storage power supply for outdoor operations of the present invention; Figure 3 It is an architecture diagram of the intelligent power management module of the power supply system of an energy storage power supply for outdoor operations of the present invention; Figure 4 It is an architecture diagram of the adaptive power supply switching module of the power supply system of an energy storage power supply for outdoor operations of the present invention; Figure 5 It is an architecture diagram of the backup power supply selection module of the power supply system of an energy storage power supply for outdoor operations of the present invention; Figure 6 It is an architecture diagram of the energy storage and charge-discharge management module of the power supply system of an energy storage power supply for outdoor operations of the present invention; Figure 7 It is an architecture diagram of the intelligent electrical equipment control module of the power supply system of an energy storage power supply for outdoor operations of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS
[0021] Next, the technical solutions of the present invention will be clearly and completely described in conjunction with the drawings of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.
[0022] Please refer to the attached Figure 1 , the embodiment of the present invention provides an energy storage power supply for outdoor operations, including: Modular LiFePO4 battery pack, consisting of more than 4 hot-swappable battery cells, with a total capacity of 4kWh - 20kWh that can be expanded; Composite protective shell, made of carbon fiber reinforced polypropylene matrix and meeting the IP68 protection level; Multi-protocol output interface group, including USB-C or PD3.1 fast charging interface, XT60 DC interface and IEC60309 AC interface; Heat dissipation device, which controls the fan speed based on the internal temperature of the energy storage power supply to adjust the heat dissipation capacity; Rotatable lighting module, integrated with a COB LED array with adjustable color temperature from 3000K to 6000K, supporting 270° three-dimensional adjustment.
[0023] Specifically, the modular LiFePO4 battery pack can be adjusted according to the actual power consumption requirements of outdoor operations. When facing small outdoor projects with less power demand, a lower-capacity combination can be used; while in the face of large and complex outdoor operations with numerous electrical devices and high power consumption, the capacity can be expanded by adding battery cells. The battery cells can be replaced, added or reduced without interrupting the power supply, ensuring the continuity of operations; The composite protective shell is made of carbon fiber reinforced polypropylene matrix and has excellent mechanical properties. The addition of carbon fiber significantly improves the shell strength, enabling it to withstand external impacts such as collisions and frictions that may be encountered during outdoor operations, effectively protecting the internal battery and electronic components. At the same time, with the IP68 protection level, it can block the intrusion of water and dust in outdoor scenarios with heavy rain or sandy environments, ensuring the normal operation of the internal electronic devices of the energy storage power supply, extending the service life of the power supply, and enabling it to work stably under harsh outdoor conditions; The rich interface types of the multi-protocol output interface group meet the power consumption requirements of different devices, facilitating outdoor operators to keep the device batteries fully charged at all times. The XT60 DC interface is commonly used to connect various DC power tools such as electric drills and saws, providing stable power supply for them and ensuring the normal operation of outdoor construction equipment. The IEC60309 AC interface is suitable for devices that need to access alternating current, improving the versatility and practicality of the power supply; The fan in the heat dissipation device can intelligently adjust the speed according to the temperature information feedback by the internal temperature sensor. When the temperature is low, the fan runs at a low speed, reducing energy consumption and noise. As the temperature rises, the fan speed increases, enhancing the heat dissipation effect and quickly removing heat, ensuring that the inside of the power supply is always within the appropriate working temperature range, maintaining the stable and efficient operation of the power supply, and ensuring the reliability of the power supply during outdoor operations; The rotatable lighting module can flexibly adjust the color temperature in outdoor scenarios with complex and changeable light conditions. At the same time, when performing delicate operations, it can provide clear and bright lighting, facilitating accurate operation by the operator. The three-dimensional adjustment function enables the lighting direction to be adjusted omnidirectionally, providing sufficient and flexible lighting support for outdoor operations and improving operation efficiency and safety.
[0024] The composite protective housing includes: An outer bulletproof polycarbonate housing; A middle Kevlar fiber buffer layer; An inner electromagnetic shielding aluminum-magnesium alloy frame.
[0025] Specifically, the outer layer uses a bulletproof polycarbonate housing, which has extremely high strength and toughness and can resist high-intensity external force impacts, ensuring that the housing always serves as the first protective barrier against external hazards under complex outdoor conditions and enhancing the overall durability and reliability of the energy storage power supply; The Kevlar fiber buffer layer in the middle layer can effectively absorb and disperse the impact force, preventing the impact force from being directly transmitted to the inner layer structure and sensitive components such as batteries, avoiding damage to internal electronic components due to vibration, and reducing the risk of equipment failure caused by mechanical shock; The inner electromagnetic shielding aluminum-magnesium alloy frame. Aluminum-magnesium alloy has good electrical conductivity and low density, which can effectively shield external electromagnetic interference. At the same time, the shielding layer formed by the aluminum-magnesium alloy frame can block these external electromagnetic interferences outside, ensuring the stable operation of the internal circuit.
[0026] The multi-protocol output interface group meets the following requirements: DC output, adjustable at 12, 24, and 48 VDC, with a maximum continuous current of 100 A; AC output, automatically recognizes 110 VAC or 220 VAC, THD < 3%; Wireless output, supports the Qi2.0 protocol, with a maximum transmission power of 30 W.
[0027] Specifically, the DC output interface can meet the power consumption needs of various outdoor devices relying on DC power supply, expand the application scope of the energy storage power supply in the DC power supply field, and ensure the efficient operation of various DC devices in outdoor operations; The AC output interface can automatically recognize two common mains voltages of 110 VAC or 220 VAC, so it can seamlessly connect to electrical equipment using different standard mains voltages in different regions, providing stable and high-quality power supply for various devices that require alternating current; The wireless output supports the power supply of devices that support wireless charging, improving the flexibility and convenience of device charging.
[0028] Refer to the appendix Figure 2, A power supply system for an energy storage power supply used in outdoor operations, including, An intelligent power management module, which is used to monitor the power of electrical equipment in real time, estimate the total power consumption, and dynamically generate a power supply strategy; An adaptive power supply switching module, which is used to switch between DC or AC power supply modes based on the device status detection result A backup power supply selection module, which is used to match the backup power supply through the positioning information and power performance data of the energy storage power supply; An energy storage and charge-discharge management module, which is used to monitor, analyze, and calculate the battery charge-discharge capacity, life attenuation balance, and temperature balance in real time, and dynamically adjust the remaining battery power and dynamic power distribution of the operation; An intelligent electrical equipment control module, which is used to determine the target electrical equipment, obtain the processing logic maintained by the energy storage power supply, and control the target electrical equipment according to the processing logic Specifically, the intelligent power management module monitors the power consumption of electrical equipment in real time and estimates the power consumption duration, accurately calculates the total estimated power consumption of all equipment, gives a sufficient power feedback when the total estimated power consumption does not exceed the total power of the power supply, and reduces the power consumption duration by a preset ratio to form a planned power consumption duration when it exceeds, recalculates the planned total power consumption, so as to reasonably allocate the power, avoid power shortage or waste, and ensure stable power supply throughout the operation; When the adaptive power supply switching module detects that a device is inserted into the power supply interface, it first controls the DC power supply component to access DC power, obtains the working status of the device, judges whether it starts normally, and if it starts normally, continues to supply DC power, otherwise switches to the AC power supply component to access AC power, ensuring that all types of devices can operate smoothly and improving the power supply adaptability; The backup power supply selection module determines the range of pre-device backup power supplies according to the positioning information, obtains the actual working duration and the shortest power supply duration of the energy storage power supplies within the range, and accordingly determines the backup energy storage power supply suitable for the working position, ensuring that when the main power supply has problems, it can be quickly switched to maintain uninterrupted operation; The energy storage and charge-discharge management module monitors, analyzes, and calculates the battery charge-discharge capacity, life attenuation balance, and temperature balance of the entire station in real time, dynamically adjusts functions such as the remaining battery power, dynamic power distribution of the operation, and operation of the thermal management equipment, and provides advanced application strategies for power stations such as peak shaving, frequency modulation, new energy consumption, and power spot plan curves, so as to realize reasonable adjustment of the operation power, ensure the efficient and stable operation of the battery, and extend the battery life; The intelligent electrical equipment control module controls and determines the target electrical equipment, obtains the processing logic maintained by the energy storage power supply, and controls the target electrical equipment according to the processing logic, realizing intelligent equipment management and control and improving the operation efficiency.
[0029] Refer to the appendix Figure 3 , The intelligent power management module includes a power monitoring unit, a power consumption estimation unit, and a power feedback unit; The power consumption monitoring unit is used to monitor the power consumption data of electrical equipment in real time through sensors; The power consumption prediction unit is used to collect the power data of each electrical equipment, and predict the power consumption duration and calculate the predicted total power consumption through a long short-term memory network model; The power feedback unit is used to reduce the power consumption duration according to a preset ratio and plan the power consumption duration when the predicted total power consumption exceeds the total power of the power supply.
[0030] Specifically, the power consumption monitoring unit continuously obtains the current and voltage values during equipment operation through sensors deployed at key circuit nodes, thereby perceiving the power consumption changes of the equipment, providing a basic and real data basis for subsequent power consumption prediction and power supply strategy formulation, and enabling the entire intelligent power management module to collect the power consumption of the equipment at all times; By actively collecting the power data of each electrical equipment through the power consumption prediction unit, mining the laws in the past power consumption data of the equipment, and based on these laws, predicting the future power consumption duration of the equipment through the long short-term memory network model prediction model, and combining with the power data, calculating the predicted total power consumption, which provides strong data support for the early planning of power distribution in the entire power supply system, helps the system reasonably arrange power resources, and avoids power shortages or waste phenomena; When the total power consumption exceeds the total power of the power supply, the power feedback unit accurately reduces the power consumption duration according to a pre-set ratio, cuts the power consumption duration of some non-critical or interruptible equipment, and then, based on the new power consumption duration limit, re-plans the power consumption plan to give priority to ensuring the power supply of key equipment, thereby maintaining the smoothness of the operation process.
[0031] Refer to the appendix Figure 4 The adaptive power supply switching module includes a DC power supply component, an AC power supply component and a device status detection unit; The DC power supply component uses a rectifier to provide direct current; The AC power supply component uses an inverter to provide alternating current; The device status detection unit is used to detect the working status when the device is inserted, and preferentially uses DC power supply, and switches to AC power supply in case of abnormality.
[0032] Specifically, the rectifier of the DC power supply component is used to convert alternating current into direct current and provide a stable DC power supply for equipment adapted to DC power supply; The AC power supply component uses an inverter to invert direct current into alternating current to supply power to equipment that requires an AC power supply, enabling various AC equipment to operate smoothly outdoors and ensuring the full development of outdoor operations; The device status detection unit starts working the moment the device is inserted into the power supply interface. It quickly detects the working status of the device, and judges information such as device type, starting current, operating parameters, etc. Based on these detection results, it preferentially tries to use DC power supply because DC power supply has advantages such as high efficiency and energy saving in some cases. If the device has abnormal startup or unstable operation under DC power supply, the device status detection unit will immediately trigger the switching mechanism to convert the power supply mode to AC power supply to ensure that the device can work normally, effectively improving the compatibility between the device and the power supply system, and ensuring that various devices can be successfully connected and operate stably in the complex outdoor environment.
[0033] See Appendix Figure 5 , the backup power supply selection module includes a positioning unit and a backup power supply evaluation unit; The positioning unit is used to obtain the position of the device through GPS or Beidou positioning; The backup power supply evaluation unit is used to determine the applicable backup energy storage power supply for the working position based on the power supply duration matching degree of the energy storage power supply within the target range.
[0034] Specifically, the positioning unit uses GPS or Beidou positioning technology to continuously and quickly obtain the accurate position information of the device, and the position information is the key starting point of the subsequent backup power supply selection process, delimiting the target range for the backup power supply evaluation unit, so as to ensure that in the complex and changeable outdoor scenarios, the matching work of the backup power supply can be carried out accurately and efficiently; By the backup power supply evaluation unit delimit the energy storage power supply within the target range according to the device position, calculate the adaptation degree of each backup power supply to the device working position and power consumption demand, so as to improve the accuracy of backup power supply selection, ensure that when the main power supply has problems, the device can quickly switch to the most suitable backup power supply, effectively enhancing the ability of the power supply system to cope with emergencies, and providing strong support for the stability of outdoor operations.
[0035] See Appendix Figure 6 , the energy storage and charge-discharge management module includes a battery monitoring unit, a power distribution unit and a thermal management unit; The battery monitoring unit is used to collect the voltage, current, temperature and internal resistance of the battery pack in real time, and combine with the electrochemical impedance spectroscopy analysis technology to dynamically evaluate the remaining capacity, health status and life attenuation trend of the battery; The power distribution unit is used to dynamically optimize the charge-discharge power distribution of the energy storage power supply according to the load demand prediction and the real-time status of the battery; The thermal management unit is used to control the heat dissipation device based on the temperature of the energy storage power supply to maintain the working temperature of the battery.
[0036] Specifically, the battery monitoring unit dynamically and accurately evaluates the remaining capacity of the battery, enabling users to clearly know how long the battery can last. At the same time, it accurately judges the health status of the battery, promptly detects whether there are potential faults in the battery, greatly ensuring the safety and stability of battery operation, extending the battery life, and ensuring stable and reliable power supply of the energy storage power supply during outdoor operations; The power distribution unit optimizes the charging and discharging power of the energy storage power supply. During the low electricity consumption period, it reasonably arranges the charging power to enable the battery to charge efficiently. During the high electricity consumption period, it accurately adjusts the discharging power to preferentially ensure the power supply of key equipment, avoiding situations of insufficient power or unreasonable distribution, improving the energy utilization efficiency of the energy storage power supply, and meeting the complex and changeable electricity consumption requirements of outdoor operations; Refer to the appendix Figure 7 , the intelligent electrical equipment control module includes a target device determination unit, a processing logic acquisition unit, and a device control unit; The target device determination unit is used to identify the electrical equipment to be controlled through multimodal recognition technology; The processing logic acquisition unit is used to obtain the preset control logic of the energy storage power supply; The device control unit is used to remotely control the target device according to the logic.
[0037] Specifically, the target device determination unit uses multimodal recognition technology to quickly and accurately identify the electrical equipment that needs to be controlled. This unit integrates various technical means such as radio frequency identification, Bluetooth signal parsing, and image recognition to quickly lock the electrical equipment to be controlled, clarify the target for the subsequent control process, improve the efficiency and accuracy of device identification, and ensure the pertinence and efficiency of outdoor operation equipment control; The processing logic acquisition unit accurately obtains the set of control logics that are adapted to the target device from the numerous preset control logics of the energy storage power supply. The energy storage power supply has pre-set a rich variety of control logics according to factors such as different device types, working scenarios, and safety requirements, providing clear operation guidelines for the device control unit, ensuring that the device operates efficiently and stably on the premise of meeting safety specifications and work requirements, and improving the intelligence and standardization level of the entire intelligent electrical equipment control system; The device control unit remotely and accurately controls the target device according to the control logic provided by the processing logic acquisition unit, thereby flexibly adjusting the device operation state and ensuring the efficient development of outdoor operations.
[0038] The control logics preset in the energy storage power supply include charge and discharge control logics, device priority control logics, environmental factor control logics, and fault and exception handling logics.
[0039] Specifically, during the charging stage, the charge and discharge control logic intelligently adjusts the charging current and voltage based on the current battery charge, health status, and characteristics of the external power source to achieve fast and safe charging. When the battery charge is low, the charging current is appropriately increased to accelerate the charging speed. When approaching full charge, the current is decreased to prevent overcharging and extend the battery life. During discharging, the discharge power is dynamically adjusted according to the changes in the power consumption requirements of the device to ensure stable output power. The device priority control logic divides the electrical devices into priorities according to their importance in outdoor operations and requirements for power supply stability, and reasonably allocates limited power resources, ensuring the smooth progress and safety of outdoor operations. The environmental factor control logic fully considers the impact of environmental factors such as temperature and humidity on the performance of the battery and the device. By means of heat dissipation devices, it controls the temperature inside the power source to overcome stable operation in high-temperature environments, expands its applicable range, ensures the normal operation of the device in harsh environments, and extends the service life of the energy storage power source and electrical devices. The fault and exception handling logic is based on monitoring the operating status of the power supply system and electrical devices, and promptly discovers abnormal situations such as battery faults, circuit short circuits, and device overloads. Once a fault is detected, corresponding measures are quickly taken, such as immediately cutting off the power supply of the faulty device to prevent the spread of the fault, starting standby devices to ensure uninterrupted critical operations, and reducing the risk of outdoor operation interruption or even safety accidents caused by faults.
[0040] Although the embodiments of the present invention have been shown and described, it will be understood by those of ordinary skill in the art that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.
Claims
1. An energy storage power supply for outdoor operations, characterized in that, Comprising: A modular LiFePO4 battery pack, consisting of more than 4 hot-swappable battery cells, with a total capacity of 4kWh - 20kWh that can be expanded; A composite protective shell, made of carbon fiber-reinforced polypropylene matrix and meeting the IP68 protection level; A multi-protocol output interface group, including USB-C or PD3.1 fast charging interfaces, XT60 DC interfaces, and IEC60309 AC interfaces; A heat dissipation device, which controls the fan speed based on the internal temperature of the energy storage power supply to adjust the heat dissipation capacity; A rotatable lighting module, integrating a COB LED array with adjustable color temperature from 3000K to 6000K, supporting 270° three-dimensional adjustment.
2. The energy storage power supply for outdoor work according to claim 1, characterized in that, The composite protective shell includes: An outer bulletproof polycarbonate shell; A middle Kevlar fiber buffer layer; An inner electromagnetic shielding aluminum-magnesium alloy frame.
3. The energy storage power supply for outdoor work according to claim 1, characterized in that, The multi-protocol output interface group meets the following requirements: DC output, adjustable at 12, 24, and 48VDC, with a maximum continuous current of 100A; AC output, automatically identifying 110VAC or 220VAC, with THD < 3%; Wireless output, supporting the Qi2.0 protocol, with a maximum transmission power of 30W.
4. A power supply system for an energy storage power source used in outdoor operations, characterized in that, For an energy storage power supply for outdoor operations according to any one of claims 1 - 3, including: An intelligent power management module, used to real-time monitor the power consumption of electrical equipment and estimate the total power consumption, and dynamically generate a power supply strategy; An adaptive power supply switching module, used to switch between DC or AC power supply modes based on the device status detection result; A backup power supply selection module, used to match a backup power supply through the positioning information and power performance data of the energy storage power supply; An energy storage and charge-discharge management module, used to real-time monitor, analyze, and calculate the battery charge-discharge capacity, life attenuation balance, and temperature balance, and dynamically adjust the remaining battery power and dynamic distribution of operating power; An intelligent electrical equipment control module, used to determine the target electrical equipment, obtain the processing logic maintained by the energy storage power supply, and control the target electrical equipment according to the processing logic.
5. The power supply system of an energy storage power source for outdoor operations according to claim 4, characterized in that, The intelligent power management module includes a power monitoring unit, a power consumption estimation unit, and a power feedback unit; The power monitoring unit is used to real-time monitor the power consumption data of electrical equipment through sensors; The power consumption estimation unit is used to collect the power data of each electrical equipment, and estimate the power consumption duration and calculate the estimated total power consumption through a long short-term memory network model; The power feedback unit is used to reduce the power consumption duration by a preset ratio and plan the power consumption duration when the estimated total power consumption exceeds the total power of the power supply.
6. The power supply system of an energy storage power source for outdoor operations according to claim 4, wherein The adaptive power supply switching module includes a DC power supply component, an AC power supply component, and a device status detection unit; The DC power supply component uses a rectifier to provide direct current; The AC power supply component uses an inverter to provide alternating current; The device status detection unit is used to detect the working status when the device is inserted, preferentially using DC power supply, and switching to AC power supply in case of abnormalities.
7. The power supply system of an energy storage power source for outdoor operations according to claim 4, characterized in that, The backup power supply selection module includes a positioning unit and a backup power supply evaluation unit; The positioning unit is used to obtain the location of the device through GPS or Beidou positioning; The backup power supply evaluation unit is used to determine a suitable backup energy storage power supply for the working location based on the power supply duration matching degree of energy storage power supplies within the target range.
8. The power supply system of an energy storage power supply for outdoor operations according to claim 4, wherein, The energy storage and charge-discharge management module includes a battery monitoring unit, a power distribution unit, and a thermal management unit; The battery monitoring unit is used to collect the voltage, current, temperature, and internal resistance of the battery pack in real time, and combine with the electrochemical impedance spectroscopy analysis technology to dynamically evaluate the remaining capacity, health status, and life attenuation trend of the battery; The power distribution unit is used to dynamically optimize the charge-discharge power distribution of the energy storage power supply according to the load demand prediction and the real-time state of the battery; The thermal management unit is used to control the heat dissipation device based on the temperature of the energy storage power supply to maintain the battery operating temperature.
9. The power supply system of an energy storage power supply for outdoor operations according to claim 4, characterized in that, The intelligent electrical equipment control module includes a target equipment determination unit, a processing logic acquisition unit, and an equipment control unit; The target equipment determination unit is used to identify the electrical equipment to be controlled through multimodal recognition technology; The processing logic acquisition unit is used to obtain the preset control logic of the energy storage power supply; The equipment control unit is used to remotely control the target equipment according to the logic.
10. The power supply system of an energy storage power supply for outdoor operations according to claim 9, characterized in that, The preset control logic of the energy storage power supply includes charge-discharge control logic, equipment priority control logic, environmental factor control logic, and fault and exception handling logic.
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