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The PennyLane Guide to Fault-Tolerant Quantum Computing (FTQC) Hero Image

The PennyLane Guide to Fault-Tolerant Quantum Computing (FTQC)

The era of logical qubits is upon us, demanding a deeper understanding of quantum hardware and error correction. This collection guides you through the latest advancements in fault-tolerant quantum device physics, equipping you to navigate the cutting-edge of quantum computing developments.

Explore modern topics on fault-tolerant quantum computing.

Quantum device implementations

How do actual fault-tolerant quantum devices work? Explore the physics and engineering behind modern quantum computers and learn about the challenges we have yet to overcome.


Pulse programming

Implementing quantum gates in real-world hardware presents a difficult engineering challenge. Explore how precise manipulation of electromagnetic pulses allows us to realize unitary gates on physical qubits.

Quantum error correction

As qubit counts increase, error rates become a growing concern. Quantum error correction addresses this challenge by developing algorithms to identify and correct errors. Explore the fundamental error correcting codes and keep up with the latest developments in this popular area of quantum computing.

Measurement-based quantum computing

Is gate-based computation the only path? Measurement-based quantum computing presents a different paradigm. Learn how entanglement and single-qubit measurements can be used to realize any quantum algorithm, offering advantages in specific quantum hardware implementations.

Documentation

  • qml.pulse
  • qml.pulse.ParametrizedHamiltonian
  • qml.pulse.ParametrizedEvolution
  • Dynamic quantum circuits

Quantum device implementations

How do actual fault-tolerant quantum devices work? Explore the physics and engineering behind modern quantum computers and learn about the challenges we have yet to overcome.


Pulse programming

Implementing quantum gates in real-world hardware presents a difficult engineering challenge. Explore how precise manipulation of electromagnetic pulses allows us to realize unitary gates on physical qubits.

Quantum error correction

As qubit counts increase, error rates become a growing concern. Quantum error correction addresses this challenge by developing algorithms to identify and correct errors. Explore the fundamental error correcting codes and keep up with the latest developments in this popular area of quantum computing.


Measurement-based quantum computing

Is gate-based computation the only path? Measurement-based quantum computing presents a different paradigm. Learn how entanglement and single-qubit measurements can be used to realize any quantum algorithm, offering advantages in specific quantum hardware implementations.


Documentation

  • qml.pulse
  • qml.pulse.ParametrizedHamiltonian
  • qml.pulse.ParametrizedEvolution
  • Dynamic quantum circuits

Quantum device implementations

How do actual fault-tolerant quantum devices work? Explore the physics and engineering behind modern quantum computers and learn about the challenges we have yet to overcome.


Pulse programming

Implementing quantum gates in real-world hardware presents a difficult engineering challenge. Explore how precise manipulation of electromagnetic pulses allows us to realize unitary gates on physical qubits.


Quantum error correction

As qubit counts increase, error rates become a growing concern. Quantum error correction addresses this challenge by developing algorithms to identify and correct errors. Explore the fundamental error correcting codes and keep up with the latest developments in this popular area of quantum computing.


Measurement-based quantum computing

Is gate-based computation the only path? Measurement-based quantum computing presents a different paradigm. Learn how entanglement and single-qubit measurements can be used to realize any quantum algorithm, offering advantages in specific quantum hardware implementations.


Documentation

  • qml.pulse
  • qml.pulse.ParametrizedHamiltonian
  • qml.pulse.ParametrizedEvolution
  • Dynamic quantum circuits
PennyLane

PennyLane is an open-source software framework for quantum machine learning, quantum chemistry, and quantum computing, with the ability to run on all hardware. Built with ❤️ by Xanadu.

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