Rosatom

IT Elements 2026 to Stage IT Apocalypse Simulations and Critique Russian Vendors

The IT Elements 2026 conference has unveiled its full program, centering on business continuity after successful cyberattacks, infrastructure failures, or technological disasters. Scheduled for September 9-10 at the Serp i Molot cultural center in Moscow, the event will host over one hundred reports, discussions, demonstrations, and master classes. The opening plenary will examine whether the primary-backup data center model remains viable, if the 3-2-1 backup rule still protects against modern ransomware, and whether CIOs or CISOs should own cyber resilience. Practical sessions will demonstrate a full Microsoft migration in 60 minutes, moving Exchange and MinIO to Russian alternatives, and a detailed review of domestic hyperconvergence strengths and weaknesses. Comparative test results for routers, NGFW, and VM systems will be presented without marketing gloss. Additional tracks will cover monitoring of corporate AI models from GPU to prompt under FSTEC Order No. 117, OWASP Top 10 for LLM, and MITRE ATLAS, alongside real-world cases from Rosatom, Beeline, Sber, and T-Bank. Trubnaya Metallurgicheskaya Kompaniya will simulate a 48-hour IT outage and show how to restart operations in half a day.

Russian Researchers Achieve First Qubit Operations on Planar Ion Traps

Scientists from Rosatom’s Quantum project have for the first time in Russia performed qubit operations using planar ion traps. The technology replaces traditional three-dimensional electromagnetic traps with flat electrode chips that can hold more than 100 ions while integrating optical readout components. Two independent teams demonstrated the approach: one at the Physical Institute of RAS led by Ilya Semerikov using ytterbium-171 ions, and another at the Quantum Center under Kirill Lakhmansky using calcium ions. Both groups successfully captured, moved, and performed single-qubit gates on the trapped ions. Rosatom views the planar architecture as a key step toward scalable industrial ion-trap quantum computers capable of solving practical problems. The teams now aim to advance from individual operations to high-fidelity, multi-zone systems with over 100 controllable qubits by 2030.