Sepion: Frontiers

Expanding what’s possible with evolved materials

Some problems cannot be solved with better software. They require better materials. Sepion: Frontiers explores how Sepion’s polymer platform can address some of the hardest challenges across energy, infrastructure, and resource systems.

100+

Polymers

5

Application Domains

20+

Patents

Engineers inspecting a commercial battery manufacturing line

Commercial Today in Batteries

The same platform that is commercial in battery separators today has proof-of-concept across five additional application domains, backed by 150+ experiments and a 20-patent IP portfolio.

Where We’re Going

The performance of modern systems is ultimately limited by materials

  • Energy storage

  • Water purification

  • Industrial separations

How precisely we can control what moves — and what doesn’t — defines what these systems can achieve.

Sepion’s platform enables new levels of control at the nanoscale, opening possibilities for industries far beyond today’s commercial focus.

Renewable energy infrastructure
Energy infrastructure

Energy infrastructure

Energy systems are scaling rapidly. Electric grids, renewable integration, and digital infrastructure all depend on reliable large-scale energy storage. These systems require materials that perform safely and consistently over decades of operation.

The opportunity

Sepion's platform enables precise control over ion transport and structural stability. Sepion: Frontiers explores separator architectures optimized for:

  • Manganese-rich (LMR) Cathodes
  • Silicon anodes
  • Lithium-metal anodes
  • Sodium ion separators

Materials define how energy infrastructure scales.

Water systems

Water systems

Clean water systems depend on efficient separation. Removing contaminants, recovering valuable materials, and recycling water all require membranes capable of precise molecular control. Today's technologies are energy intensive and limited in selectivity.

The opportunity

Advanced polymer architectures can redefine how ions and molecules move through filtration systems. Sepion: Frontiers explores new approaches to:

  • Direct lithium extraction (DLE)
  • Hydrometallurgy

Improving separation efficiency could transform water systems across industry and infrastructure.

Industrial water treatment infrastructure
Industrial separation pipelines
Industrial Separations

Industrial Separations

Many industrial processes depend on separating gases and molecules efficiently. These separations often require large amounts of energy and specialized equipment. The limiting factor is frequently the material used to control molecular flow.

The opportunity

Sepion's nanoscale polymer architectures offer new possibilities for membrane design. Sepion: Frontiers investigates applications including:

  • Gas separation
  • Molecular filtration
  • Industrial process efficiency improvements

Better materials can dramatically reduce the energy required to move and separate molecules.

The Lab Behind the Possibilities

The same platform that powers our commercial products also drives our research

Sepion’s Sepion: Frontiers are supported by the scientific infrastructure required to explore advanced materials at the nanoscale.

Idea-to-result flow diagram with the Sepion platform at the centre

Equipment & Facilities

Possibility Labs operates alongside Sepion’s development and pilot facilities.

This enables rapid experimentation and validation through:

  • advanced materials synthesis
  • membrane fabrication
  • nanoscale characterization
  • electrochemical testing
  • prototype system integration

Ideas can move quickly from theory to measurable results.

How We Work Together

Sepion participates in a small number of commercially-focused joint development programs each year.

You bring:

  • market access.
  • application expertise.

Sepion brings:

  • solutions rooted in the polymer platform.
Sepion ecosystem diagram with capability glyphs orbiting the Sepion mark
A Platform for Discovery

Sepion: Frontiers is a place to explore where advanced materials can have the greatest impact

Some ideas evolve into commercial products. Others open new scientific directions. All begin with the same principle:

Control matter at the nanoscale, and entire systems can evolve.