Three Lincoln Laboratory technologies receive 2026 R&D 100 Awards - news.lavx.hu
Three MIT Lincoln Laboratory technologies received 2026 R&D 100 Awards for innovations in cybersecurity, quantum computing, and 5G interference cancellation.
Three technologies developed by MIT Lincoln Laboratory are among recipients of the 2026 R&D 100 Awards, recognizing the 100 most significant innovations transitioned to use or made available for license in the past year. R&D World, an online publication, manages the awards program which has run annually since 1963, judged by an independent panel of science and technology experts and industry professionals.
Secure-by-design operating system
Lincoln Laboratory developed Magnetite, a secure operating system to protect embedded computers in deployed systems like satellites, drones, or radars from cyberattacks. The OS addresses vulnerabilities in legacy systems that predate modern cyber threats, which adversaries increasingly exploit using artificial intelligence.
If Windows and Linux are the familiar workhorses of general-purpose computing, Magnetite is built for the different realities of embedded systems, for which real-time performance matters, resources are tight, and system failure has physical consequences.
Magnetite's security is assured by several components: it rests on seL4, a mathematically verified microkernel; its services are written in Rust to prevent memory-corruption bugs; and it configures services as isolated processes under the "least privilege" principle. If compromised, the system can lock down the affected component while critical functions continue.
Government users and approved partners can use Magnetite at no cost, with teams integrating it into space and flight platforms for the Department of War. The technology was named MIT Lincoln Laboratory's Best Invention of 2025.
Quantum microsystems platform
The Quantum Microsystems platform addresses interconnection bottlenecks in modern computing by integrating hundreds of superconductor and semiconductor chips into a single wafer-scale system. This eliminates the need for bulky coaxial cables in quantum systems, which require cryogenic cooling and create complex wiring challenges.
The platform combines several innovations: an AI decision-tree approach for optimal routing, digital lithography to create custom wiring around defects, microbump or bumpless chip connections, and superconducting fabric for high-speed signal transmission. The design is reworkable, allowing engineers to replace or upgrade individual chiplets without rebuilding the entire system.
By shifting from chip-level scaling to AI-optimized system-level integration, the platform establishes a new paradigm for building ultra-efficient, large-scale computing infrastructure for applications in quantum computing, AI, and high-performance computing.
5G interference cancellation
5G cellular network expansion has created unintended interference with nearby non-5G RF antennas, affecting systems like military radars, aircraft altimeters, satellite ground stations, and radio telescopes. Lincoln Laboratory researchers developed an algorithm that isolates and removes 5G signals from affected antennas.
The algorithm decodes the structure of nearby 5G base station transmissions and reconstructs the interfering signal to subtract it from incoming data. Unlike traditional approaches, it doesn't require spatial separation of signals, preserving antenna resources for other interference types. Tests with a Nokia 5G base station recovered a radar signal with 89% of its interference-free detection range preserved.
While 5G waveforms exhibit complex structure, their generation is governed by global standards that allow our cancellation methodology to generalize across base station radio heads made by a diverse set of vendors.
The Department of War is evaluating the technology for multiple platforms, and it may also cancel interference from future 6G networks as they emerge. Since 2010, Lincoln Laboratory has received 111 R&D 100 Awards, highlighting its success in transferring unclassified technologies to industry and government.
Related
