5results about How to "Life maximization" patented technology

The invention relates to a novel wire feeding evaporation system which comprises an installation base, and an evaporation mechanism is arranged on the installation base in a lifting mode. The wire feeding mechanism comprises a wire feeding seat, a wire feeding wheel, a pressing wheel and a wire feeding pipe, the tail end of the wire feeding seat is rotatably arranged on the mounting seat, the wire feeding wheel is rotatably arranged on the wire feeding seat, and the wire feeding pipe is rotatably arranged on the wire feeding seat; the swinging mechanism is arranged on the side, close to the wire feeding pipe, of the wire feeding seat, and the position of a longitudinal wire attachment point of the film coating wire is changed through swinging of the wire feeding pipe by the swinging mechanism; the wire feeding pitching mechanism is arranged on the mounting seat, a connecting part of the wire feeding pitching mechanism is connected with the wire feeding seat, and the position of a transverse wire attachment point of a film coating wire is changed by adjusting the pitching angle of the wire feeding seat through the wire feeding pitching mechanism. According to the invention, the effect of adjusting the wire attachment point of the coated wire in the evaporation process can be realized.

An apparatus for processing a substrate and a substrate processing method are provided, the apparatus including a processing vessel having a processing space; a support unit for supporting and rotating a substrate in the processing space; a liquid supply unit for supplying a processing liquid to the substrate supported by the support unit; and a heating unit for heating the substrate, wherein the support unit includes a spin chuck; a rotation driver for rotating the spin chuck; a chuck pin mounted on the spin chuck so as to rotate together with the spin chuck; and a chuck pin moving unit for moving the chuck pin between a contact position in which the chuck pin is in contact with a side portion of the substrate and an open position in which the chuck pin is spaced apart from the side portion of the substrate, and the chuck pin moving unit moves the chuck pin while the substrate is rotated by the spin chuck.

This invention discloses a structure with dual-end limiting function, specifically relating to the field of shower head technology. It includes a mounting base with a freely rotatable and anti-detachment rotating sleeve at its bottom. The rotating sleeve has a threaded hole, with a limiting block and a limiting component at each end of the hole. The limiting component includes a sealing plate and a second limiting block that tilts inward towards the threaded spiral structure. A screw is threaded into the threaded hole, with an extension at the top of the screw. A support body rotatably mounted within the mounting base can be linked with the extension via an eccentric shaft-roller, cylindrical spiral rail-pulley, or rack-gear structure. This invention prevents the screw from detaching and avoids axial failure through a dual-limiting structure. The rotating sleeve and screw work together to raise and lower the extension, enabling flexible adjustment of the shower head tilt angle. The rotating sleeve is equipped with ball bearings and anti-slip textures, and the screw, with its special dimensions and thread count design, also features a sliding retainer. This solves the problems of inconvenient adjustment, jamming, and lack of effective limiting in traditional shower head support bases, resulting in smooth adjustment, precise positioning, and safe use.

The invention discloses an intelligent management system and method for an energy storage cabinet, and relates to the technical field of energy storage systems, and the method comprises the steps: employing a local controller to distribute a unique equipment ID for an energy storage converter, and carrying out the grouping of the energy storage converter according to the number of DC side buses; setting a running state monitoring strategy of the energy storage converter, and judging the running state of the energy storage converter; obtaining a second main energy storage converter and a first main energy storage converter by setting a second master-slave identification strategy and a first master-slave identification strategy; constructing a particle swarm discharge adjustment algorithm through an energy storage converter operation state monitoring strategy in combination with the first main energy storage converter and the second main energy storage converter, obtaining control parameters according to the particle swarm discharge adjustment algorithm, and adjusting an energy storage cabinet discharge strategy; according to the method, the discharge time and the discharge power can be automatically optimized according to the actual operation state of the energy storage converter, the optimal overall performance of the system is ensured, and the flexibility of energy management and scheduling is further improved.

The application provides a kind of optical storage system cluster SOH equalization control method, device and electronic equipment, belong to energy storage technical field.The method includes determining the SOH average value and SOH standard deviation of the optical storage system cluster according to the SOH data of all energy storage subsystems, in the case where the SOH standard deviation is greater than or equal to a preset value, the SOH data of each energy storage subsystem is compared with the sum of the SOH average value and the SOH standard deviation, the corresponding power allocation strategy is determined according to the comparison result and the power allocation is carried out according to the power data.The application takes SOH standard deviation as a key decision indicator, dynamically switches the optical storage system cluster from "non-discriminatory working mode" to "differentiated protection mode", delays the decay rate of all energy storage subsystems, and prolongs the average life and discharge capacity of the entire cluster throughout the life cycle.