industry pain points

In the fields of pharmaceuticals and fine chemicals, hydrogenation reactions play a central role. However, the traditional operation mode relying on high-pressure hydrogen gas cylinders has exposed a series of problems. Transporting steel cylinders is laborious, storage poses high risks, pressure regulation is limited, and purity is difficult to meet standards, seriously affecting the selectivity of the reaction. Frequent replacement of steel cylinders not only interrupts the experimental process, but also hinders research progress. Researchers need to invest a lot of time in pressure regulation and safety monitoring when completing high-pressure hydrogenation experiments, and fluctuations in hydrogen purity lead to poor data reproducibility, greatly slowing down the pace of scientific research.

1. Triple active safety mechanism:

The overpressure self-locking system monitors pressure in real-time and automatically cuts off power when exceeding the limit; The liquid level warning system will sound an alarm and stop electrolysis in case of water shortage, protecting the core components of the equipment; The hydrogen leak monitoring system responds to gas leaks in seconds and is linked to an audible and visual alarm system.

2. Zero hazard design:

Adopting explosion-proof electrolytic cell structure (transition metal catalytic technology), with built-in non activated trace oxygen removal agent to eliminate impurity interference; Multi stage purification system (membrane separation+adsorption dehumidification) ensures a hydrogen purity of up to 99.99%.

You can achieve it through WeChat mini program:

1. Remote pressure setting and mode switching

2. Real time monitoring of water consumption/hydrogen production

3. Automatic push of abnormal status

1. Precise pressure control:

Output pressure range 0-10MPa (accuracy ± 0.1MPa), flow regulation 0-1000sccm (fluctuation<1%).

2. Example of Efficiency Leap:

In a drug synthesis experiment at a certain university, the hydrogenation reaction pressure was increased from 2MPa to 10MPa, and the reaction time was shortened from 6 hours to 2.5 hours; The catalyst utilization rate increased by 40%, and the target product yield exceeded 99%.

Support integration with microchannel reactors to build a fully automated continuous flow synthesis platform.

The YZHG-500/500H hydrogen generator is easy to operate and eliminates the hassle of transporting steel cylinders. Turn on the power switch to produce hydrogen, and there is no need to release pressure after use. Simply turn off the power. Can be used continuously or intermittently, with stable hydrogen production without decay.