Your essential toolkit to master key concepts and cutting-edge techniques in quantum research—designed for Ph.D.-level newcomers ready to deeply explore and solve real-world problems.
A pedagogical guide to hybrid qubit-oscillator processors unlocks their potential as a powerful new paradigm in quantum computing.
A guide to mastering quantum control, from core principles to modern tools.
A comprehensive and detailed tutorial on quantum benchmarking and characterization, equipping both newcomers and experts with essential tools to evaluate and enhance quantum computing performance.
Despite its origins as a thought experiment, “Maxwell’s demon” has left a lasting legacy in uncovering fundamental links between thermodynamics, information theory, and computation.
The underlying principles, applicability, and scope of the Lie-algebra decoupling theorem are explored in depth to provide a tutorial on methodology for solving the dynamics of quantum systems.
A thorough presentation of quasiprobabilities elucidates their potentially pivotal use in many important areas of quantum research.
A pedagogical hands-on guide to quantum master equations and their numerical implementations, tailored to newcomers interested in interdisciplinary research.
A pedagogical overview of analytical and numerical techniques used to characterize current fluctuations in Markovian systems is presented, helping to bridge knowledge between condensed-matter physics and quantum optics.
General mechanisms of photon-mediated entanglement generation are elucidated in a pedagogical way, and codes are made available for the practical evaluation of protocols.
A deep dive on scrambling dynamics in quantum many-body systems is presented, with a detailed overview of out-of-time-ordered correlators, including how to calculate and measure them.
A pedagogical guide to understand important aspects of the physics and complexity of quantum many-body systems, focusing on short-range interactions and thermal equilibrium.
Techniques used to study quantum emitters are pedagogically introduced, highlighting nuances and best practices on assessing their suitability for quantum information science.
A pedagogical and comprehensive introduction to the full quantum description of intense laser-matter interactions and its potential for quantum state engineering is presented.
The behavior of the entanglement entropy of typical pure quantum states is pedagogically introduced, including recent conjectures on how it can be used as a diagnostic of quantum chaos and integrability.
Systematic design of broadband parametric amplifiers, circulators, and frequency converters, is enabled by harnessing network-synthesis concepts and methods from microwave engineering.
Beating metrological challenges with quantum light: The basic principles of parameter estimation are pedagogically explained, including fundamental experimental considerations.
A pedagogical introduction to the consistent methods in open quantum systems dynamics, to treat electron-photon interactions in strongly coupled and correlated quantum emitter ensembles is presented.
The tools for designing and analyzing superconducting circuits are laid out, going from basic prototypes up to modern and sophisticated approaches, such as fluxonium and 0-/pi qubits.
This tutorial surveys the recently developed Quantum Singular Value Transformation and showcases how the three major quantum algorithms (search, factoring, and simulation) can be unified as instances of this transformation.
The core techniques that underlie typical cQED experiments are laid out, offering a guide on how one can design, construct, and characterize a quantum device.
A newcomer guide on applying tools from machine learning to solve problems in condensed-matter physics and quantum information: From key ingredients to the implementation.
A phase-space exploration of continuous-variable systems is presented, guiding newcomers through the methodology needed for investigating non-Gaussian states.
Optimal control theory is introduced for quantum systems, providing the mathematical understanding for constructing open-loop control laws without experimental feedback.
A consistent and versatile framework to understand and apply the laws of thermodynamics for quantum systems far from equilibrium is presented.
An insightful tutorial on how to deal with stochastic processes in the quantum domain: The tools to understand the effect of the environment on quantum systems’ dynamics are provided.
Prominent protocols that allow certifying the proper functioning of quantum devices are thoroughly discussed, providing a high-level guide for newcomers.
