SEALSQ confirms U.S. post-quantum chip deployments and $200M Quobly acquisition talks

LAESLAES

SEALSQ confirms U.S. deployments of its post-quantum semiconductor trust anchors at the “Year of Quantum Security 2026” launch in Washington D.C. The company has entered exclusive MOU negotiations to invest ~$200M for a majority stake in French quantum computing firm Quobly to expand secure computing solutions.

1. Official Launch of Year of Quantum Security 2026 and Active U.S. Deployments

On January 12, 2026, SEALSQ Corp welcomed the launch of the “Year of Quantum Security 2026” in Washington, D.C., an industry-wide initiative that convened over 150 U.S. government officials, legal experts, international partners and technology leaders to address the accelerating threat posed by large-scale quantum computers. SEALSQ’s CEO Carlos Moreira highlighted the company’s existing post-quantum semiconductor trust anchors, which have been integrated into production environments across the U.S. over the past year. These secure microcontrollers and identity chips—developed in partnership with Trusted Semiconductor Solutions—are embedded in over three million devices used in critical infrastructure, defense communications and commercial networks to guard against harvest-now-decrypt-later attacks.

2. Strategic Investment Memorandum of Understanding with Quobly SAS

SEALSQ has entered exclusive negotiations under a non-binding memorandum of understanding to invest approximately $200 million in Quobly SAS, a French quantum computing firm specializing in silicon-based processors. The multi-stage transaction contemplates an initial minority investment followed by acquisition of a majority stake, combining SEALSQ’s post-quantum cryptographic expertise with Quobly’s hardware capabilities. This deal builds on a November 2025 collaboration agreement and aims to co-develop secure-by-design quantum systems, leveraging SEALSQ’s roadmap to extend hardware-anchored security into emerging quantum infrastructures, including protected provisioning of quantum networks and cloud platforms.

Sources

BGB