Ra’anana, Israel, November 9, 2026 -- Rail Vision Ltd. an early commercialization stage technology company transforming railway safety through advanced AI-integrated sensing systems, announces today, that its subsidiary Quantum Transportation Ltd. (“Quantum Transportation”) launched an end-to-end Quantum Error Correction (QEC) program on the Arbel superconducting quantum processor at the Israeli Quantum Computing Center (IQCC).

The Company believes that this program represents an important technological milestone in Quantum Transportation’s efforts to develop an integrated quantum error correction architecture designed to improve the reliability and scalability of quantum computing systems.

The initial experiments on the Arbel processor in this program establish a foundation for a unified workflow that connects quantum device characterization, circuit execution and error decoding. By bringing these capabilities together on actual quantum computing hardware, Quantum Transportation’s aim is to advance beyond isolated error correction components toward a comprehensive system capable of identifying, processing and correcting quantum errors within a coordinated operational framework. The next phase will focus on incorporating Quantum Transportation’s noise-aware decoder directly into the operational workflow.

Quantum error correction is widely regarded as one of the critical technological challenges facing the quantum computing industry. Quantum processors are inherently sensitive to environmental interference, imperfect operations and other sources of noise that can introduce errors during computations. Overcoming these limitations is essential to the development of reliable, fault-tolerant quantum computers capable of executing increasingly complex algorithms.

Quantum Transportation intends to further develop an end-to-end quantum error correction workflow in collaboration with control-system and accelerated-computing partners, with the objective of connecting quantum hardware operations and classical computational processing into a coordinated system.

This approach is intended to address one of the fundamental requirements of fault-tolerant quantum computing: the ability to process error information rapidly enough to support quantum operations as they occur.

The Company views the launch of experiments at IQCC as an important first step in this development effort. The initial stage does not constitute a demonstration of real-time quantum error correction or fault-tolerant quantum computation, both of which remain objectives of subsequent development phases.