Skip to main content
E

Evove

Evove utilizes nanotechnology and additive manufacturing to create precision membrane technology that enhances water filtration efficiency by eliminating random pore sizes and reducing fouling. This technology addresses the challenges of high energy consumption and space requirements in conventional membrane systems, enabling more sustainable water recycling and resource recovery.

Ares, United KingdomFounded 2015392K+ followers
Updated 20 months ago

Funding

$16.4M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.

AO
Funding rounds are not available yet.

Founders

Product

Problem

Conventional membrane-based separation and filtration systems suffer from inherent limitations, including random pore sizes, uneven pore distribution, and membrane fouling. These issues lead to reduced flux rates, increased energy consumption for backwashing, and larger system footprints, hindering efficient water recycling and resource recovery.

Solution

Evove employs nanotechnology and additive manufacturing to create precision membrane technology that overcomes the limitations of traditional membrane systems. Their Enhance and Separonics product lines feature membranes with controlled pore sizes and distribution, minimizing fouling and maximizing flux rates. This approach reduces energy consumption by up to 80%, doubles the yield from raw feeds, and enables up to 80% process water recycling. Evove's technology supports circular economies by enabling local water recycling, resource harvesting, and environmental cleanup, while significantly reducing the carbon footprint associated with fluid transportation, treatment, and disposal.

Target Audience

Evove's primary customers include organizations in lithium extraction, green hydrogen production, desalination, food and beverage processing, and water and wastewater treatment, seeking to improve resource efficiency and reduce their environmental impact.

Features

  • Graphene-oxide coatings applicable to all membrane types and formats
  • 3D-printed inserts for tubular and hollow-fiber membranes to enhance performance
  • Energy-saving spacers for spiral-wound ultrafiltration, nanofiltration, and reverse-osmosis membranes
  • Enhanced flux rates and reduced fouling due to precision pore size control
  • Reduced energy consumption in filtration and separation processes
  • Increased yield from raw material feeds in food and beverage processing
  • Higher process water recycling rates, moving towards zero-liquid discharge
This profile is AI-generated and may contain inaccuracies.