Laboratory High Pressure Homogenizer

A: It supports adjustable pressure up to 1800 bar, meeting the requirements for cell lysis, microemulsion, and nanoparticle preparation in small-sample laboratory experiments.

A: The homogenization principle and pressure control logic are consistent with pilot and industrial models; laboratory test parameters can be directly referenced for subsequent process scale-up development.

A: It comes with a closed circulation pipeline design, enabling repeated multi-pass homogenization.

A: Equipped with touchscreen + PLC intelligent control, real-time pressure curve display and one-key start/stop. No complex professional training is needed for laboratory researchers and students.

A: Integrated overpressure protection, emergency stop button, fault alarm and safety interlock system to prevent equipment damage and personal safety hazards during lab trials.

A: The high-pressure homogenization process generates significant frictional heat (a 100 bar increase in pressure results in a 2.4°C rise in temperature), which can cause denaturation of active proteins, cellular metabolites, and heat-sensitive samples. A chiller continuously cools the flow path, maintaining the sample at a constant low temperature, thereby preserving biological activity and ensuring consistent experimental reproducibility.

A: The first-stage homogenizer is equipped with a built-in cooling coil, while the second-stage homogenizer comes standard with an external heat exchanger at the discharge port. The cooling jacket is connected to an external recirculating chiller. Low-temperature coolant circulates continuously to dissipate the frictional heat generated under high pressure. A temperature sensor is installed at the material outlet to monitor the material temperature in real time. Users can control the target temperature by adjusting the temperature of the cooling water, thereby maintaining stable low-temperature processing and preventing thermal damage to heat-sensitive biological samples.