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Core technology

Core Technology

Traverse Quantum builds a full-stack technology system spanning fault-tolerant architecture, real-time error correction, system and ISA optimization, quantum design automation, and high-speed precision control.

Updated: 2026-08

Capabilities

  • The world's first fault-tolerant system architecture prototype
  • A leading position in real-time error correction
  • System and instruction-set optimization benchmarked against global leaders
  • Quantum design automation
  • High-speed, high-precision control systems

Technical principles

  • Apply a computer-science perspective and engineering mindset to reshape quantum physics
  • Connect the quantum instruction set, microarchitecture, error-correction middleware, and control electronics
  • Use hardware-software co-design to unite parallel control, fast readout, real-time decoding, and dynamic feedback
  • Continuously optimize the fault-tolerant quantum computing stack for scalable engineering deployment

Full-stack technology track

  1. The world's first fault-tolerant system architecture prototype

    Team members successfully built the world's first complete fault-tolerant quantum computing system architecture prototype, spanning an end-to-end implementation of the quantum instruction set (ISA), microarchitecture, error-correction middleware, and control electronics.

  2. A leading position in real-time error correction

    Team members resolved the error-accumulation challenge that had troubled the field for a decade and were the first to reduce real-time surface-code decoding latency to under one microsecond. This technical benchmark places the company at the international forefront of scalable quantum error-correction control.

  3. Technical strength benchmarked against global leaders

    In quantum-system simulation, instruction-set optimization, and related fields, team members have broken world records multiple times and compete head-to-head technically with international leaders including Google, NVIDIA, and DeepMind in real-time decoding and systems.

  4. Quantum design automation

    Team members built an automated design workflow from quantum chips to quantum microarchitecture and pursue independent R&D of full-flow simulation optimization and physical verification tools. Some tools deliver internationally leading performance, providing methods and tool support for physical-layer optimization of fault-tolerant quantum computing systems.

  5. High-speed, high-precision control system

    The hardware-software co-designed room-temperature control architecture supports independent development of high-density, low-latency, low-noise quantum control electronics. Built on high-speed FPGAs, high-precision digital-to-analog and analog-to-digital converters, and a self-defined synchronized clock network, the system can control and rapidly read out large-scale qubits in parallel. Integrated low-latency signal processing and decision logic supports high-fidelity waveform generation and quantum-state readout, determines qubit states in sub-microsecond time, and triggers rapid reset and dynamic feedback for physical qubits.