When a vacuum pump operates under high-temperature conditions, the core issue causing its performance degradation lies in the thermal expansion of components, lubrication failure, and changes in gas properties due to the accumulation of internal heat.
In high-pressure systems, the solenoid valve is a core component for controlling fluid flow, and the rationality of its flow channel design directly affects the valve's reliability, lifespan, and system stability.
The placement of vibration isolators (such as replacing four-point support with three-point support) needs to be optimized through dynamic simulation to avoid new vibration modes caused by asymmetrical support.
In practical applications, the selection of the flow characteristic curve of a solenoid valve needs to take into account system requirements, medium characteristics, and control logic.
In environments with extremely high requirements for quietness, such as precision laboratories, hospital treatment areas, biosafety rooms, or high-end research facilities, the operation of every piece of equipment must balance functionality and quietness.
In modern industrial automation, fluid control, and even everyday equipment operation, exhaust valves—especially those using electromagnetic actuation—play a crucial, behind-the-scenes role.