Digital Quantum Simulation With Gate Sequences
Digital quantum simulation breaks a system’s time evolution into sequences of gates on a quantum computer. Methods, uses and hardware limits.
Digital quantum simulation breaks a system’s time evolution into sequences of gates on a quantum computer. Methods, uses and hardware limits.
How quantum circuits are simulated on classical computers with state vectors, tensor networks and tools such as Qiskit and Cirq, and where limits lie.
IBM’s quantum roadmap compared with what it has delivered: Eagle, Heron, Condor, Quantum System Two, Qiskit and targets to 2033.
The highest paying quantum computing roles, from software engineer and algorithm developer to hardware engineer and research scientist.
Why quantum computers need a dedicated operating layer, and what a quantum OS handles: resource management, hardware control and algorithm execution.
How quantum programming differs from classical code, and how languages and SDKs such as Qiskit, Cirq and Q# describe circuits, gates and qubits.
A beginner’s guide to quantum computers: qubits, the physics behind them, quantum algorithms, error correction, supremacy versus advantage and resources.
Quantum computing job roles, from software engineers and algorithm researchers to cryogenic and microwave engineers, with the skills each role needs.
Photonic, NMR and trapped-ion approaches to building a small quantum computer, what the hardware demands, and what a hobbyist can realistically do.
Twelve quantum computing books compared, from picture books and Quantum Computing for Dummies to Nielsen and Chuang, with notes on who each suits.
An overview of quantum computing startups: what they build in hardware and software, how they are funded, and how quantum computing as a service works.