10results about How to "Improve charging effect" patented technology

The utility model provides a kind of switching power supply circuit and charging device, the utility model provides switching power supply circuit including at least one switch control path, the switch control path includes: voltage input unit and voltage regulating unit.Voltage input unit connects alternating voltage input source, receives alternating voltage, and based on the alternating voltage output direct current output voltage;Voltage regulating unit is parallel with the voltage input unit, and output end connects load, for the output voltage is voltage-regulated and handled, and the output voltage after voltage-regulated handling is used to charge load.The switching power supply circuit of the utility model can improve the charging performance of charging device, for example, charging pile, and circuit design structure is simple, easy to realize, and cost is lower.

The application provides a segmented charging method and detonation system of an electronic detonator, which comprises the following steps: a detonator performs detonation password authentication on the electronic detonator; after the authentication is completed, the detonator generates a segmented charging instruction according to the number of the electronic detonators with a load, and outputs a charging current; the electronic detonator acquires the segmented charging instruction sent by the detonator, and determines a charging mask according to the segmented charging instruction; the electronic detonator generates a charging time threshold according to the charging mask and the identity mark of the electronic detonator; the electronic detonator cyclically compares the charging time threshold with a preset delay variable, when the charging time threshold is greater than or equal to the preset delay variable, the value of the preset delay variable is increased by a fixed value at intervals of a preset delay duration, until the charging time threshold is less than the delay variable, and the charging current is accessed.

The application discloses a kind of composite positive plate and lithium ion battery and preparation method.The composite positive plate includes positive current collector;Positive current collector surface is coated with positive active material layer;Positive active material layer surface is coated with solid electrolyte layer;Positive active material layer includes positive active material, oxide solid electrolyte, conductive agent, dispersing agent and binder and the mass ratio of these components is (91.9%~97.45%): (0.5%~5%): (1%~1.5%): (0.05%~0.1%): (1%~1.5%);Solid electrolyte layer includes oxide solid electrolyte, conductive agent, dispersing agent and binder and the mass ratio of these components is (13.9%~70.9%): (13.2%~49.2%): (0.6%~3.8%): (13.2%~49.2%);The application is conducive to guaranteeing battery thermal safety while significantly improving battery fast-charging capability.

This invention belongs to the field of wastewater treatment technology, specifically relating to a method and apparatus for removing COD from high-salt, high-organic-content wastewater. The removal method employs two organic matter retention membranes connected in series to treat the high-salt, high-organic-content wastewater. By controlling appropriate process conditions, these organic matter retention membranes primarily retain organic matter while retaining as little salt as possible, ensuring stable operation of subsequent processes or achieving compliant wastewater discharge. Furthermore, the concentrate obtained after treatment by each organic matter retention membrane is returned in a specific proportion to the inlet of the membrane that produced the concentrate, thereby ensuring efficient and stable membrane operation, improving system recovery rate, and extending membrane lifespan. This invention achieves COD removal from high-salt, high-organic-content wastewater using only a single process, exhibiting high removal rate, good decolorization effect, and high recovery rate. It significantly shortens the process flow and is characterized by being green, efficient, energy-saving, environmentally friendly, and highly reliable.

This application provides a battery charging strategy decision-making method and related equipment, belonging to the field of battery charging control technology. The method includes acquiring external state data of the target battery during operation; estimating basic state parameters and extracting multi-scale features based on the external state data to obtain a first input vector, where the basic state parameters include state of charge and ohmic internal resistance, and the multi-scale features include charging cycle state, battery internal polarization, and aging parameter features; using a neural network-based internal state field inference model to infer the internal state data of the target battery from the first input vector; determining a second input vector based on the external state data, internal state data, state of charge value, and configured charging target; and using a Transformer multi-objective decision-making model to optimize the charging strategy on the second input vector to obtain the optimal charging strategy. This application can improve the robustness of the battery charging strategy decision-making algorithm in the face of battery aging.

The application discloses a liquid crystal grating and a holographic three-dimensional display device. The liquid crystal grating comprises a plurality of first electrodes, a first driving circuit for providing a driving signal for the first electrodes, and a first driving circuit comprising a first switch unit, a second switch unit and a storage unit. A first input end of the first switch unit receives a data signal, and a second input end of the second switch unit receives a first signal. A first plate of the storage unit is electrically connected to the first electrode, and the first plate is also electrically connected to a first output end of the first switch unit. A second plate is electrically connected to a second output end of the second switch unit. In a charging stage in a driving cycle of the liquid crystal grating, the second switch unit transmits a first level signal to the second plate. In a charge pumping stage in the driving cycle of the liquid crystal grating, the second switch unit transmits a second level signal to the second plate. The first level signal and the second level signal have different potentials. The application can simplify the circuit structure.

This disclosure discloses a battery charging preheating method and apparatus, a vehicle, electronic equipment, and a storage medium. After determining the vehicle's charging intention information by responding to a charging command, the method acquires the current battery state information and the current ambient temperature. The current battery state information and current ambient temperature are input into a simulation model of the target preheating temperature to obtain the target preheating temperature. Real-time vehicle driving parameters and historical driving information are input into the simulation model to obtain the target time required to heat to the target preheating temperature. Based on the required time to heat to the target preheating temperature, the start time for battery preheating is determined. Upon reaching the start time for battery preheating, the battery is controlled to preheat to the target preheating temperature. This disclosure enables dynamic adjustment of battery preheating, minimizing energy consumption while ensuring the battery temperature is within the optimal charging range when the vehicle reaches a charging station, ensuring the vehicle does not lose excessive driving range and improving battery charging performance.

The utility model discloses a kind of high compatibility TYPE-C interface with protocol indication identification battery pack charging scheme, comprising: Type-C interface, set to the front end of device shell surface, including VBUS pin, D+ pin, D- pin, CC pin and ground pin, for connecting external power supply;Protocol control unit, in the middle part of circuit board, its input end is connected to the VBUS pin of Type-C interface by first wire L1, for real-time monitoring input voltage;Compatible with various mobile phone fast charging, especially QC2.0 such popular rate high cannot be fine-tuned charger and ordinary USB charger to multi-section series-parallel connection battery charging, save earth resources, reduce the property safety accident and personal safety accident caused by using inferior charger, accelerate the popularization of TYPE-C in charging industry, because control unit directly samples battery voltage and charging current, improve the charging effect of battery and the life of battery.

This utility model relates to the field of landslide monitoring and early warning technology, and discloses a multi-layer sliding surface landslide monitoring and early warning device. The device includes a base with a through-hole at the center of the top of the base, a bracket installed on the top, and a fixed column fixedly connected to the top of the bracket. A multi-layer sliding monitoring mechanism is provided on the surface of the base and the bracket. An automatic tracking power supply mechanism is provided on the top of the fixed column, and an audible and visual alarm mechanism is provided on the surface. The monitoring mechanism drives the drill rod to drill into the soil through a hydraulic cylinder. It uses fiber optic displacement sensors, acceleration sensors, and soil moisture sensors to monitor the landslide status from multiple dimensions. A honeycomb permeable protective cover and other structures ensure the stable operation of the sensors. The automatic tracking power supply mechanism adjusts the orientation of the solar panel through a photosensitive sensor and a servo control motor to improve charging efficiency. The audible and visual alarm mechanism emits audible and visual signals when the monitoring data reaches the early warning threshold. This device can realize real-time monitoring of multi-layer sliding surfaces, has a long-lasting power supply, and provides timely early warning, making it suitable for field landslide monitoring.