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Deconstructing error channels
Desconstructing hardware-based error channels into simpler noise models that are more readable.
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Steady-States for Optomechanical System
Steady-State for Optomechanical Hamiltonian in the Single-Photon Strong-Coupling Regime
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Efficient Simulation of Clifford Circuits
In this tutorial, we take a deep dive into learning about Clifford circuits and learn how to simulate them using PennyLane and see how to decompose quantum circuits into a set of universal quantum gates comprising Clifford gates.
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Top 20 molecules for quantum computing
To help the quantum chemistry community find concrete cases for potential quantum advantage, we've curated a list of the 20 most interesting molecules for quantum computing.
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Qubit tapering
In this tutorial, we demonstrate the symmetry-based qubit tapering approach which allows reducing the number of qubits required to perform molecular quantum simulations.
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Zero noise extrapolation (ZNE) with PennyLane and Cirq
Estimating the potential energy surface of molecular Hydrogen with ZNE and PennyLane + Cirq
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Machine learning for quantum many-body problems
This describes one of the ideas for using classical shadow formalism and machine learning to predict the ground-state properties of the 2D antiferromagnetic Heisenberg model.
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Introduction to Yao
An introductory tutorial to use Yao, a differentiable quantum programming in Julia and allows solving practical problems in quantum computation research.
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Expressibility and Entanglement Capability of the Parameterized Quantum Circuits
An introductory tutorial to learn about how to compare different ansatz structure by measuring their expressibility and entanglement capabilities.
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Introduction to Variational Quantum Eigensolver
This is an introduction on how to build VQE from scratch using Qiskit to find ground state and excited states for a Hamiltonian.
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Introduction to Quantum Machine Learning
A short review of the theory and motivation behind interlinking of quantum computing and machine learning.
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Introduction to Quantum Computing using Qiskit
This is an introduction on how to build VQE from scratch using Qiskit to find ground state and excited states for a Hamiltonian.
