We use the quantum annealers D-Wave Advantage 4.1 and 2000Q to generate truly random numbers. (Top) Quantum Annealing with a Null QUBO: We anneal from (A) the initial equ...
Abstract:
This study investigates how qubits of modern quantum annealers (QA) such as D-Wave can be applied for generating truly random numbers. We show how a QA can be initialised...Show MoreMetadata
Abstract:
This study investigates how qubits of modern quantum annealers (QA) such as D-Wave can be applied for generating truly random numbers. We show how a QA can be initialised and how the annealing schedule can be set so that after the annealing, thousands of truly random binary numbers are measured in parallel. Those can then be converted to uniformly distributed natural or real numbers in desired ranges, either biased or unbiased. We discuss the observed qubits’ properties and their influence on the random number generation and consider various physical factors that influence the performance of our generator, i.e., digital-to-analogue quantisation errors, flux errors, temperature errors and spin bath polarisation. The numbers generated by the proposed algorithm successfully pass various tests on randomness from the NIST test suite. Our source code and large sets of truly random numbers are publicly available on our project web page https://4dqv.mpi-inf.mpg.de/QRNG/.
We use the quantum annealers D-Wave Advantage 4.1 and 2000Q to generate truly random numbers. (Top) Quantum Annealing with a Null QUBO: We anneal from (A) the initial equ...
Published in: IEEE Access ( Volume: 10)