See how a separate steam condenser with coolant introduction reduces vacuum pump power consumpt
See how a vapor condenser with cooling medium sump reduces vacuum pump load and energy consumpt
A multistage cross-flow heat exchanger cools hot semiconductor effluent, limits particle-related maintenance, and protects vacuum pumps.
A controlled 3.3-6 mbar column pressure drop raises fatty acid throughput while limiting decomposition and isomerization.
Magnesium vapor is cooled in a fluid-cooled heat exchanger, separating condensate from impurities for further purification.
Vacuum treatment evaporates water and removes dissolved air from oily fruit paste, increasing oil release while limiting oxidation at low temperatures.
A hygroscopic solution condenses atmospheric water vapor through a heat-driven distillation process.
External heat exchanger eliminates coolant circulation, reducing energy consumption and space requirements for high-capacity distillation.
Dry vacuum pump condensation reduces aqueous waste discharge while maintaining high acrylic acid purity.
Vacuum evaporation eliminates post-cure baking steps, reducing production time and cost while meeting quality standards.
A condenser uses a high-surface-area medium to adsorb liquid from compressed gas flow.
Ultrasonic transducers condense vapor bubbles via acoustic radiation pressure, eliminating large sub-cooled liquid volumes and reducing turbine backpressure.
A jet pump extracts volatile components from heat transfer oil, preventing cavitation and maintaining operational reliability.
Vacuum distillation separates indium vapor from impurities using controlled temperature and pressure parameters, shortening the production flow.