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Roll it.
Coat it.
Power it.

Powering the

future,

layer

by layer

Powering the future, layer by layer

We develop drop-in solutions improving battery technologies and advancing future energy storage.

Know more

↓

Contact Us

Roll it.
Coat it.
Power it.

Powering the

future,

layer

by layer

Powering the future, layer by layer

We develop drop-in solutions improving battery technologies and advancing future energy storage.

Know more

↓

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ABOUT US

Qkera specializes in developing innovative solid electrolyte materials that are designed to enhance energy density and boost performance across a wide range of battery technologies. This includes advanced lithium-ion, lithium metal, silicon, and solid-state batteries - supporting the diverse future of energy storage.

Our mission is to overcome the obstacles to mass commercialization of next-gen battery technologies. We achieve this by offering innovative, cost-effective, and scalable drop-in solutions. Through our cutting-edge chemical processing technologies, we unlock the full potential of widely field-tested, superior materials for advanced energy storage.

OUR TECHNOLOGY

What we enable

Anode

The future of batteries will be diverse – there won’t be a one-size-fits all. Our approach is compatible with high-energy density anodes like lithium metal, silicon, but also improves conventional graphite electrode systems to add stability and safety.

Solid Electrolyte

Our flexible and thin oxide ceramic electrolyte coupled with a proprietary bilayer approach can be combined with any state-of-the-art polymer separator, integrating optimized interfaces with high-performance materials without adding bulkiness.

Cathode

Our materials are completely cathode-agnostic – thus boosting the energy density of LFP cathodes, while getting the best out of high-voltage systems – serving as a platform to enable a powerful future for all kinds of applications.

Anode

Solid Electrolyte

Cathode

MISSION STATEMENT

Unlocking

Unlocking next-generation batteries

next-generation

batteries

Cost-Effective

Our products utilize abundant and inexpensive raw materials, combined with a rapid, low-temperature synthesis process that boasts near-unity yield for maximum efficiency.

Cost-Effective

Our products utilize abundant and inexpensive raw materials, combined with a rapid, low-temperature synthesis process that boasts near-unity yield for maximum efficiency.

Thin and High-Performance

To achieve uncompromised performance, our electrolytes are engineered to be exceptionally thin (1-20 microns), enabling high energy density alongside superior mechanical robustness and flexibility.

Thin and High-Performance

To achieve uncompromised performance, our electrolytes are engineered to be exceptionally thin (1-20 microns), enabling high energy density alongside superior mechanical robustness and flexibility.

Oxide-Based Solid Electrolyte Technology

Leveraging proven and field-tested materials, our technology is designed for high ionic conductivity, as well as electrochemical and thermal stability

Oxide-Based Solid Electrolyte Technology

Leveraging proven and field-tested materials, our technology is designed for high ionic conductivity, as well as electrochemical and thermal stability

Scalable and Roll-to-Roll Compatible

Our materials and large-area processing capabilities ensure cost-effective and scalable manufacturing through compatibility with roll-to-roll methods.

Scalable and Roll-to-Roll Compatible

Our materials and large-area processing capabilities ensure cost-effective and scalable manufacturing through compatibility with roll-to-roll methods.

Versatile Design

Compatible with current and next-gen battery designs through unique bilayer technology.

Versatile Design

Compatible with current and next-gen battery designs through unique bilayer technology.

Enhanced Safety and Strength

Stable at extreme temperatures above 500 °C and high mechanical robustness to support dimensional expansion and dendrite penetration while maintaining structural integrity at low thicknesses.

Enhanced Safety and Strength

Stable at extreme temperatures above 500 °C and high mechanical robustness to support dimensional expansion and dendrite penetration while maintaining structural integrity at low thicknesses.

AWARDS