A glimpse at computing’s quantum-centric future
Explainer
Ryan Mandelbaum and Jerry Chow
Quantum Error Correction
IBM Quantum has a clear roadmap to practical quantum advantage in the coming years. This goal requires scalable, error-corrected quantum systems. We develop bottom-up approaches to the problem of noisy qubits and incorporate error correction techniques to realize this technology’s true potential.
Our work
Scaling for quantum advantage and beyond
NewsRyan MandelbaumRelay-BP: The world’s fastest, most accurate decoder for qLDPC error correction codes
ExplainerLeanne CherryHow IBM will build the world's first large-scale, fault-tolerant quantum computer
NewsRyan Mandelbaum, Jay Gambetta, Jerry Chow, Tushar Mittal, Theodore J. Yoder, Andrew Cross, and Matthias SteffenWhat is fault-tolerant quantum computing?
ExplainerRobert Davis, Olivia Lanes, and John WatrousDynamic circuits enable essential circuit cutting methods for quantum-centric supercomputing
ResearchDaniel J. Egger, Maika Takita, and Robert Davis- See more of our work on Quantum Error Correction
Publications
Feedforward suppression of readout-induced faults in quantum error correction
- Liran Shirizly
- Dekel Meirom
- et al.
- 2025
- Physical Review A
Dynamical simulations of many-body quantum chaos on a quantum computer
- Laurin Fischer
- Matea Leahy
- et al.
- 2025
- APS Global Physics Summit 2025
Applications of quantum error correction
- Bence Hetényi
- Ian Hesner
- et al.
- 2025
- APS Global Physics Summit 2025
Modeling error correction with Lindblad dynamics and approximate channels
- Zohar Schwartzman-Nowik
- Liran Shirizly
- et al.
- 2025
- Physical Review A
Flag-Proxy Networks: Overcoming the Architectural, Scheduling and Decoding Obstacles of Quantum LDPC Codes
- Suhas Vittal
- Ali Javadi
- et al.
- 2024
- MICRO 2024
Provable bounds for noise-free expectation values computed from noisy samples
- Samantha V. Barron
- Daniel J. Egger
- et al.
- 2024
- Nat. Comput. Sci.