Technology platform · Pulsed energy · Matter engineering

A pulsed-energy platform for matter engineering.

XCRUSHER develops high-power pulsed systems that interact with matter through plasma generation, shockwave propagation and controlled energy transfer. Our platform fragments, separates, weakens and transforms complex materials — without direct mechanical contact.

Physical principle

One pulse. One plasma. One shockwave.

A high-voltage pulse is discharged into a dielectric medium. The discharge generates a plasma channel, followed by a shockwave and a rapid pressure field.

This physical event can be configured according to the material, the medium and the target transformation.

Plasma — pulsed fragmentation
Why it's different

Not a crusher. Not a furnace. Not a chemical path.

Conventional processes act from the outside: cut, crush, heat, dissolve — until structural rupture.

XCRUSHER delivers energy as a pulse. A localised physical interaction, configurable to the material, the medium and the target transformation.

Core capabilities

Four capabilities. One physical platform.

01

Selective fragmentation

Liberation of complex materials at natural interfaces, without unnecessary destruction of valuable fractions.

02

Controlled weakening

Selective friability or pre-cracking before processing, separation or transformation.

03

Contactless processing

Interaction without direct mechanical contact — reduced contamination, new process conditions.

04

Advanced matter interaction

Pulsed energy for particles, nanomaterials, composites and strategic systems.

Technology architecture

Modular. Protected. Industrialisable.

The XCRUSHER platform combines pulse generators, interaction chambers, controlled media, process supervision and downstream separation and qualification systems.

Not a machine, but a technology architecture configurable across multiple verticals: circularity, advanced materials, mining, particle engineering and controlled dismantling. A patent portfolio covers the core principles, system architecture and application protocols.

StructureModular
IPPatent portfolio
Target5 verticals
Proven across material families

One platform. Different materials.

The same pulsed-energy platform addresses complex material streams — each linked to a dedicated application page.

Work with us

Test a material. Discuss an industrial application.

Send us a material or describe your stream — we assess whether pulsed separation is relevant for your case.

XCR / TEC / FAQ

Frequently asked questions

Key points about how pulsed energy works and where it applies. Reach out if your case is not covered below.

How does pulsed energy differ from mechanical grinding?
Grinding applies brute force that mixes constituents together. Pulsed energy applies a controlled discharge that concentrates on the interfaces between materials. Result: components come out separated rather than pulverized together.
What are the four capabilities of the XCRUSHER platform?
Selective fragmentation (liberation at matter interfaces), contactless processing (interaction without direct mechanical action), shock-wave engineering (controlled propagation for separation), and advanced matter interaction (approaches for functional particles and strategic materials).
What physical contrasts does XCRUSHER exploit?
Electrical conductivity, density, fragility, differential hardness between phases. The greater the difference in physical properties between two materials, the more cleanly pulsed energy can separate them.
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