2results about How to "Obvious structural advantages" patented technology

The invention discloses a two-way equal-force elastic executing element and a compensation device based on the element, the executing element comprises a cylinder body assembly, a stepped shaft-shaped pull rod, a piston assembly, a two-way valve and a valve core, the interior of a piston is divided into a plurality of air pressure cavities, buffering, pressure equalizing and pressure maintaining are achieved through the two-way valve, rigid impact is reduced, and the service life is prolonged. During working, the pull rod only bears tensile force or pressure at the same moment, and bidirectional equal-force output can be achieved under the working conditions of stretching and compressing. Based on the execution element, the invention further provides a wheel body eccentric rotation compensation device, a plane universal compensation device and a three-dimensional space universal compensation device, and passive self-adaptive compensation can be achieved in a radial plane, a horizontal plane or a three-dimensional space. The two-way elastic acting and dynamic compensation device is diversified in structural form, stable in stress, free of motion retardation, capable of being scaled in equal proportion, adaptive to various cavity sections, wide in application range and capable of meeting the requirements for two-way elastic acting and dynamic compensation in multiple scenes.

This invention discloses a walnut-shaped In2O3 / CuO material, its preparation method, and its applications, comprising the following steps: Step 1: solvothermal synthesis of a bimetallic coordination polymer precursor; Step 2: controllable pyrolysis of the precursor to convert it into a target oxide composite material; This invention addresses the difficulty of synergistic regulation of heterostructures and oxygen vacancies in existing methods by proposing a one-step solvothermal-programmed pyrolysis method to prepare a walnut-shaped In2O3 / CuO heterojunction composite material with a three-dimensional hierarchical porous structure and controllable oxygen vacancies, thereby achieving simultaneous optimization of material structure, composition, and defects to improve low-temperature Cl2 sensing performance.