Screner Innovations is a pioneering research and development entity dedicated to creating advanced compute and chipset solutions. Our mission is to deliver scalable, high-performance wafers and chips that power next-generation classical computing while laying the foundation for large-scale quantum systems. These platforms enable transformative capabilities in artificial intelligence, scientific simulation, secure communications, and beyond.

The Blueprint >

Advanced computing will redefine industries by providing unprecedented control over complex systems and data. Achieving this transformation depends on developing practical, scalable chipsets that overcome current limitations in performance, power efficiency, and manufacturing maturity.

Screner Innovations' thesis centers on a multi-vertical integration approach that harnesses breakthroughs from our R&D labs in aerospace, automotive, engine design, new propulsion systems, and materials science. By fusing innovations like impact-absorbing "jelly" materials - originally developed for NODE automotive shells that soften upon collision - with loss-absorbing solutions adapted from aerospace damping technologies, we create resilient, adaptive chipsets. This empowers us to achieve what others deem impossible: hybrid architectures capable of exascale classical compute today and modular quantum scaling toward billion-qubit systems by 2031. This vision has guided our efforts since inception.

Building Utility-Scale Compute Solutions We are transitioning advanced computing from laboratory prototypes to deployable, utility-scale infrastructure. Screner Innovations is developing these systems through strategic collaborations with institutional partners, with initial bespoke deployments targeted for 2027 across Screner devices.

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We design proprietary chipsets that leverage mature wafer fabrication processes while incorporating bismuth oxyselenide transistors, spintronic elements, and hollow-core vacuum waveguides. This avoids reliance on silicon photonics, focusing instead on electron-spin and vacuum-confined mechanisms for superior efficiency and robustness.

We engineer our wafers and chips using 300mm substrates in advanced foundries, ensuring high-volume production compatibility and process maturity at sub-2nm nodes.

Bismuth-based components and spintronic accelerators are seamlessly combined with vacuum-core structures for low-loss, high-density data handling.

Drawing from our automotive R&D, we employ high-performance cooling inspired by Formula 1 engine systems, utilizing adaptive fluid dynamics to maintain operational efficiency under extreme loads.

We are now accepting institutional requests for customized prototypes, enabling early integration into mission-critical environments.

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