Hydrogenation units are core facilities in petrochemical and refining industries, operating under extreme working conditions of high pressure, high temperature, flammable hydrogen medium, and trace corrosive impurities.

Safety‑grade pressure measurement instruments are critical components to guarantee stable operation, interlock protection and accident response for thermal power, nuclear power and thermoelectric power plants. Monocrystalline silicon pressure transmitters stand out for high measurement accuracy, outstanding long‑term stability and strong anti‑interference capability, and are widely adopted in boiler systems, steam pipelines, reactor auxiliary loops and thermal‑electric heat‑exchange units of power stations.

High-pressure hydrogen systems are widely deployed in hydrogen refueling stations, hydrogen storage equipment and petrochemical hydrogenation units, where precise and safe pressure measurement is critical to system operational stability.

High-pressure hydrogenation units belong to high-risk petrochemical production facilities with extreme operating conditions of high temperature, high pressure, flammable hydrogen medium and continuous cyclic operation. Interlocking protection systems are the core safety barriers to prevent overpressure accidents, equipment damage and unit runaway failures, while pressure transmitters act as the primary signal acquisition components of interlocking logic.

Continuous hydrogenation units are core production facilities in the petrochemical and fine chemical industries, operating under long-term continuous operation, high pressure, high temperature, and hydrogen-rich corrosive environments.

Slurry bed residue hydrotreating technology is a core deep processing method for heavy crude oil and residual oil in the petrochemical industry, which can effectively convert low-value heavy residue into high-quality clean oil products.

As clean hydrogen energy gains widespread adoption in transportation and industrial fields, high-precision and high-reliability pressure monitoring has become a core guarantee for the safe operation of hydrogen systems. Ordinary industrial pressure transmitters are prone to measurement failure and structural damage in hydrogen environments due to hydrogen embrittlement, gas permeation and extreme pressure fluctuations.

Hydrogen refueling units operate under extreme high-pressure, flammable, and dynamically fluctuating working conditions, where high-pressure differential pressure and pressure transmitters serve as core monitoring components for system pressure safety. During field installation, mechanical stress, pressure impact stress, thermal stress and hydrogen medium-induced structural stress frequently cause sensor zero drift, measurement deviation, and even premature equipment failure, seriously affecting the operational stability and safety of hydrogen refueling stations.

With the rapid development of hydrogen energy industry, accurate and stable pressure measurement has become a core guarantee for the safe and efficient operation of hydrogen production, storage, transportation and application systems.