![Earl Campbell](/media/ilvphfm3/c0931_057e-copy.jpg?mode=min&quality=80&width=600&rnd=133571468207800000)
Most people are familiar with fault-tolerance even if they don’t realise it. I like to compare with how compact discs tolerate some mild scratching.
Earl is a world expert in quantum error correction with nearly two decades of experience in creating fresh design concepts for fault-tolerant quantum computing architectures. During his career, Earl has made significant contributions to quantum error correction, fault-tolerant quantum logic and compilation, and quantum algorithms--with 80+ publications and authoring the premier review on quantum error correction in Nature.
Career history
Senior Research Scientist (2020-2022), AWS
ESPRC Early Career Research Fellow and Senior Lecturer, University of Sheffield (2014 - 2021)
Postdoctoral Research Associate (2010-2015), Postdam University, Free University Berlin, University of Sheffield
Royal commission 1851 fellow (2008-2010), University College London
Qualifications
University of Oxford, PhD, Quantum Computing
Publications
A real-time, scalable, fast and highly resource efficient decoder for a quantum computer
Tangling schedules eases hardware connectivity requirements for quantum error correction
Statistical phase estimation and error mitigation on a superconducting quantum processor
Block-encoding structured matrices for data input in quantum computing
Mind the gap: Achieving a super-Grover quantum speedup by jumping to the end
Parallel window decoding enables scalable fault tolerant quantum computation
All publications - Google scholar
Patents
- Simultaneous measurement of commuting operators (CN 202080055174.1, EP 20761301.9, JP 2022-508521, US 17/634,527)
- Quantum computing decoder and associated methods (US 17/932,837, US 18/410,972, PCT/GB2023/052393)
- Measuring quantum operators (GB 2309349.5, PCT/GB2023/051977)
- Quantum decoder (GB 2309501.1, PCT/GB2023/051978)
Media
Latest updates
View the latest updates from Earl below.
![How to develop the Quantum Error Correction Stack for every qubit](/media/33konaln/riverlane_track_02.jpg?anchor=center&mode=crop&quality=80&width=800&height=480&rnd=133643271252500000)
How to develop the Quantum Error Correction Stack for every qubit
![QEC23: Six key takeaways on the state of quantum error correction](/media/yslao5p0/qec23008.jpg?anchor=center&mode=crop&quality=80&width=800&height=480&rnd=133440787807000000)
QEC23: Six key takeaways on the state of quantum error correction
![Parallelisation opens window to useful quantum computers for the first time](/media/lchhqjyh/parallel1.jpeg?anchor=center&mode=crop&quality=80&width=800&height=480&rnd=133436891860470000)
Parallelisation opens window to useful quantum computers for the first time
![Introducing the Riverlane Roadmap: Three basic steps to decoder success](/media/nhhoelum/roadmap.jpg?anchor=center&mode=crop&quality=80&width=800&height=480&rnd=133389191164570000)
Introducing the Riverlane Roadmap: Three basic steps to decoder success
![New quantum decoders challenge beliefs around quantum error correction](/media/wn0o0mc3/belief.jpg?anchor=center&mode=crop&quality=80&width=800&height=480&rnd=133344109152070000)
New quantum decoders challenge beliefs around quantum error correction
![What is a TeraQuop decoder?](/media/vgaiapwt/asic.png?anchor=center&mode=crop&quality=80&width=800&height=480&rnd=133427248391400000)
What is a TeraQuop decoder?
![Mind the gap! New algorithm speeds up the quantum computations](/media/pyrbpxnq/tim-hufner-4440_iu9ops-unsplash.jpg?anchor=center&mode=crop&quality=80&width=800&height=480&rnd=133313159946000000)
Mind the gap! New algorithm speeds up the quantum computations
![QCTIP 2023 - Six scientific takeaways](/media/dvhj0nld/dsc08276.jpg?anchor=center&mode=crop&quality=80&width=800&height=480&rnd=133288146209770000)
QCTIP 2023 - Six scientific takeaways
Latest research
View the latest research from Earl below.
Explore more
View biographies for other Riverlane team members.