Metal 3D-printed Suppressor System Development

We develop and manufacture advanced metal components using additive and precision technologies for high-reliability and defence applications.

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Fragmentation Controlled Ammunition Shell

We develop and manufacture advanced metal components using additive and precision technologies for high-reliability and defence applications.

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Rifled Barrel Manufacturing

We develop and manufacture advanced metal components using additive and precision technologies for high-reliability and defence applications.

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Battle Tank Track Pad Manufacturing

We develop and manufacture advanced metal components using additive and precision technologies for high-reliability and defence applications.

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Military Vehicle Armour Solutions

We develop and manufacture advanced metal components using additive and precision technologies for high-reliability and defence applications.

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Development

HYPERHUSH® is a 3D-printed titanium/Inconel suppression system built on an adaptive free-flow architecture. Designed for automatic fire capability and integration with high-calibre barrels, it combines lightweight additive manufacturing with durable performance. The system is IP-protected and currently in R&D phase.

IP Protected

Titanium / Inconel

Additive Manufacturing

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Advanced Suppression System Engineering

The HYPERHUSH® program focuses on the development of next-generation suppressor systems manufactured through advanced metal additive technologies. By integrating lightweight structural design with high-performance materials such as titanium and Inconel, the system enables durable, efficient and adaptable suppression solutions suitable for demanding operational environments.

3D printed structure

Free-flow architecture

Additive Manufacturing

High-calibre compatibility

IP-protected design

Additive Manufacturing Technology

The suppressor system is developed using advanced metal additive manufacturing processes combined with precision finishing operations. This hybrid approach enables complex internal geometries, optimized gas flow behaviour and improved strength-to-weight ratios compared to traditional manufacturing methods.