Filter membranes are critical components in dairies. It is essential, therefore that they are maintained well and replaced when necessary to maintain plant performance and product quality. GEA has a comprehensive suite of service programs designed for dairies large and small. They include the monitoring and replacement of membranes and dedicated service technicians who have the experience and know-how to keep plants running efficiently round the clock.
GEA is a world leader in cross-flow membrane filtration with reverse osmosis, nanofiltration, ultrafiltration and microfiltration as core technologies. The company keeps large stocks of the most common membranes in stock at all its major facilities worldwide including: stainless steel membranes; ceramic membranes; and polymeric spiral wound membranes.
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GEA Filtration is a world leader in cross-flow membrane filtration, with reverse osmosis and nano-, ultra-, and micro-filtration as core technologies.
Membrane filtration is key to the efficiency of many processing plants. It is essential, therefore, to maintain them diligently to maximize profits and keep the membranes in top operating condition.
GEA Filtration is a world leader in cross-flow membrane filtration, with reverse osmosis and nano-, ultra-, and micro-filtration as core technologies.
Rugged design, especially effective for demanding applications with extreme process conditions or feed streams with elevated particulate solids and/or high viscosity.
The impact of global warming is increasingly apparent all over the world. Towns and cities everywhere face the same challenge: providing their communities with reliable, affordable, sustainably sourced heat. GEA spoke with an expert in the field, Kenneth Hoffmann, Manager, Heat Pumps at GEA Heating & Refrigeration Technologies, about tackling global warming faster.
Something caught Farmer Tom's eye. Instead of another product demo, GEA showcased innovations via AR. That's only the start of GEA's interactive digital farm.
GEA scientists are working with researchers at the Graz University of Technology to configure a homogenization process and technology that turns eucalyptus pulp into 3D-printed, organic structures mimicking human veins, arteries and other tissues.