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UnitaryLab

Official

@unitarylab

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5Public Repos
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35Published Skills

Offers a comprehensive framework for designing, simulating, and executing quantum circuits, algorithms, and differential equation solvers across diverse hardware backends.

Skills Distribution
DomainAI Models & ...Quantum Circuit De.. (40%)Variational Quantu.. (30%)Numerical PDE Solv.. (30%)

Agent Skills by UnitaryLab

Showing 35 vetted skills indexed across 1 GitHub repositories.

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30

quantum-skills

Route quantum inquiries to leaf Skills and load full Skill-chains before coding.

Official
Advanced
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30

simulators

Select quantum simulators across UnitaryLab, Qiskit, and PennyLane backends.

Official
Intermediate
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algorithms

Organize quantum algorithm demos with YAML frontmatter and Markdown instructions.

Official
Advanced
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30

qiskit

Design, simulate, and execute quantum circuits across multiple backends with Qiskit.

Official
Advanced
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30

unitarylab

Design and simulate quantum circuits with GateSequence across UnitaryLab, Qiskit, and PennyLane.

Official
Intermediate
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30

pennylane

Enable differentiable quantum circuits and hybrid quantum-classical workflows in Python.

Official
Intermediate
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30

pennylaneqldpc

Run PennyLane qLDPC tutorials covering LDPC basics, CSS construction, and Hypergraph Product validation.

Official
Advanced
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30

quantum-machine-learning

Document variational quantum machine learning algorithms with SKILL.md files and runnable scripts.

Official
Advanced
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30

cryptography

Apply quantum phase estimation and period finding to analyze cryptographic primitives.

Official
Advanced
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30

hamiltonian-simulation

Simulate quantum time evolution under Hamiltonians with Trotter-Suzuki and QDrift methods.

Official
Intermediate
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30

primitives

Automate creation and understanding of quantum primitives with Python and UnitaryLab.

Official
Intermediate
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30

linear-systems

Solve linear systems with HHL, LCU, and QSP quantum algorithms.

Official
Advanced
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backward-heat-1d-schrodingerization

Solve 1D backward heat PDEs via warped phase transformation.

Official
Advanced
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30

vqe

Estimate ground-state energies for 2-qubit Ising Hamiltonians using VQE with COBYLA.

Official
Intermediate
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vqc

Train a variational quantum classifier on tabular data with parameter-shift gradients.

Official
Intermediate
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30

qcbm

Train a quantum circuit Born machine on Bars-and-Stripes distributions with KL-divergence and parameter-shift gradients.

Official
Advanced
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30

qaoa

Solve Max-Cut problems with QAOA circuits using COBYLA optimization.

Official
Intermediate
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30

qnn

Build and train a Quantum Neural Network for supervised classification with angle-encoded PQCs.

Official
Intermediate
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30

simon

Run Simon's algorithm on quantum circuits to recover hidden bitstrings.

Official
Advanced
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30

discretelog

Solve discrete logarithms g^x ≡ y (mod P) with quantum period-finding.

Official
Advanced
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30

shor

Factor composite integers via quantum period finding and classical post-processing.

Official
Advanced
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30

trotter

Decompose Hamiltonians into Pauli terms and generate Trotter-Suzuki circuits.

Official
Advanced
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30

qdrift

Sample Pauli-term evolutions to approximate e^{-iHt} for quantum Hamiltonians.

Official
Intermediate
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30

hadamard-test

Estimates expectation values and overlaps using Hadamard and swap tests.

Official
Intermediate

Frequently Asked Questions About UnitaryLab

FAQPage Schema
What specific tasks can researchers perform using UnitaryLab?

Researchers can design and simulate quantum circuits, execute variational algorithms like VQE and QAOA, perform Hamiltonian time evolution, and solve complex partial differential equations using Schrödingerization techniques across multiple backends.

Which technical personas benefit most from these quantum capabilities?

Quantum physicists, computational scientists, and researchers focused on variational circuit design or numerical analysis will find these resources essential for prototyping and validating quantum-classical hybrid approaches.

What are the primary dependencies for running these quantum simulations?

Execution requires a local environment configured with Qiskit or PennyLane backends. Users must manage circuit dependencies and ensure compatible hardware or simulator interfaces are installed to support the specific gate-level operations defined in the manifest.