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General-purpose SDKs

Cliffords.jl

Maintained by BBN-Q

This library allows for efficient calculation of Clifford circuits by tracking the evolution of X and Z generators (the so-called **tableau** representation).

JuliaCustom / project-specific
Cliffords.jl illustration

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General-purpose SDKs

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46

Last pushed

Jul 1, 2021Updated 5y ago

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What it is

Cliffords.jl is maintained by BBN-Q and sits in the General-purpose SDKs lane of the open-source quantum map.

This library allows for efficient calculation of Clifford circuits by tracking the evolution of X and Z generators (the so-called **tableau** representation).

Last verified by Qtangl generator on May 27, 2026

Who it's for

Developers who want a broad entry point for building circuits, experimenting with algorithms, and integrating quantum workflows into larger applications.

What you can build or learn

  • Prototype end-to-end circuit workflows without committing to a niche backend too early.
  • Learn how the project represents circuits, gates, jobs, and results.
  • Compare how a major ecosystem frames practical quantum development.

License

Custom / project-specific

SPDX identifier detected from the repository metadata or license files.

Repository README

Preview from the project README.

Rendered as Markdown inside a scrollable preview. Long READMEs stay contained; expand or open on GitHub for the full document.

~163 words · about 1 min readOpen on GitHub

Cliffords

Build Status

codecov

This library allows for efficient calculation of Clifford circuits by tracking the evolution of X and Z generators (the so-called tableau representation). No special effort has been made to strictly minimize the number of bits needed to store each Clifford. Rather, the goal was clarity. One unique feature compared to other such utilities is that we also efficiently track the inverse operations. This is useful to, e.g., compute 'undo' gates in randomized benchmarking sequences.

Usage

using Cliffords

# single-qubit Pauli operators
X * Y => iZ

Pauli([0 1; 1 0]) => +X

# multi-qubit Pauli operators
kron(X,X) * kron(Z,Z) => -YY

# Cliffords
Clifford([1 0 0 0;
          0 1 0 0;
          0 0 0 1;
          0 0 1 0]) == CNOT => true

# Clifford * Pauli
H * X => Z
H * Z => X

# Clifford * Clifford
CNOT21 = expand(CNOT, [2,1], 2)
CNOT * CNOT21 * CNOT == SWAP => true

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