2results about How to "Simplify engineering design" patented technology

This application provides a half-cavity directly coupled magnetic alloy high-frequency cavity, relating to the field of ion accelerator technology. The magnetic alloy high-frequency cavity is connected to a radio frequency power source. The magnetic alloy high-frequency cavity includes: a cavity body comprising two symmetrically arranged half-cavities; a vacuum pipe disposed inside the cavity body and connecting the two half-cavities; multiple magnetic alloy rings disposed in a single half-cavity and coaxially arranged with the vacuum pipe, the multiple magnetic alloy rings being parallel to each other; a coupling device for electromagnetically coupling the multiple magnetic alloy rings located in a single half-cavity to form an overall load unit; and an impedance transformation unit disposed on one side of each half-cavity and electrically connected to the overall load unit, used to transform the impedance of the overall load unit to an impedance matching the characteristic impedance of an external feed line, so as to connect to the radio frequency power source through the external feed line. This application, through a half-cavity fully coupled design, eliminates inter-path coupling, ensuring that the port impedance test value is consistent with the actual value, and is easy to adjust.

The present invention belongs to the technical field of energy Internet of Things, and specifically discloses an integrated design method for explosion-proof cooling of energy Internet of Things, including: creating a topological network; obtaining connection lines between each field-side device and an interactive device and a heat dissipation device, and adding the connection lines as links between nodes to the topological network; demarcating explosive areas on the topological network, and setting a first explosion-proof area; demarcating a second explosion-proof area connected to the first explosion-proof area, and aggregating links corresponding to the connection relationship between the field-side device and the interactive device and the heat dissipation device; marking gradually decreasing pressures on the second explosion-proof area, the first explosion-proof area, and the explosive area, respectively, to drive the refrigerant of the heat dissipation device to flow through the field-side device and reach the explosion-proof environment; the method has the following advantages: using a non-explosion-proof design to simplify production and reduce costs, while enhancing the safety of equipment in an explosive environment to prevent explosions through explosion-proof areas and pressure difference control, and effectively preventing gas invasion and overheating of equipment.