We know that quantum computing is a complex subject, but the resources section has content aimed at people with differing levels of knowledge. Watch a video, read a tutorial or white paper or one of the many scientific papers that have been published about all aspects of D-Wave and quantum computing. 

Tutorials

Quantum computing is not a familiar topic to most people, nor is programming a quantum computer. Our tutorials provide background information for those interested in understanding quantum computers and how to program them.

How D-Wave processors are built, and how they use the physics of spin systems to implement quantum computation The aim of this document is to describe how a quantum computer is physically built, how quantum bits and their associated circuitry are created, addressed, and controlled, and what is happening inside the computer when programmers send information to a D-Wave quantum machine.

Publications

D-Wave has published more than 70 peer-reviewed papers in scientific journals including Nature, Science, Physical Review and others. There are also many other papers written by independent scientists about the D-Wave technology. You can find links to them from the publications page.

Understanding magnetic phases in quantum mechanical systems is one of the essential goals in condensed matter physics, and the advent of prototype quantum simulation hardware has provided new tools for experimentally probing such systems. We report on the experimental realization of a quantum simulation of interacting Ising spins on three-dimensional cubic lattices up to dimensions 8 × 8 × 8 on a D-Wave processor (D-Wave Systems, Burnaby, Canada). The ability to control and read out the state of individual spins provides direct access to several order parameters, which we used to determine the lattice’s magnetic phases as well as critical disorder and one of its universal exponents. By tuning the degree of disorder and effective transverse magnetic field, we observed phase transitions between a paramagnetic, an antiferromagnetic, and a spin-glass phase.

(13 Jul 2018) Science Vol. 361, Issue 6398, pp. 162-165
DOI: 10.1126/science.aat2025

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