A scalable model for a distributed quantum computation is a challenging problem due to the
complexity of the problem space provided by the diversity of possible quantum systems, from …

Quantum computers utilize the fundamentals of quantum mechanics to solve computational
problems more efficiently than traditional computers. Gate-model quantum computers are …

In near-term quantum computers, the operations are realized by unitary quantum gates. The
precise and stable working mechanism of quantum gates is essential for the implementation …

The entangled network structure of the quantum Internet formulates a high complexity
routing space that is hard to explore. Scalable routing is a routing method that can determine …

Entangled quantum networks are a fundamental of any global-scale quantum Internet. Here,
a mathematical model is developed to quantify the dynamics of entangled network structures …

Quantum computers provide a valuable resource to solve computational problems. The
maximization of the objective function of a computational problem is a crucial problem in …

The quantum Internet enables networking based on the fundamentals of quantum
mechanics. Here, methods and procedures of resource prioritization and resource balancing …

With the advent of quantum and quantum-inspired machine learning, adapting the structure
of learning models to match the structure of target datasets has been shown to be crucial for …

Here, we define the entanglement concentration service for the quantum Internet. The aim of
the entanglement concentration service is to provide reliable, high-quality entanglement for …

In the noisy intermediate-scale quantum technological setting, the computational steps in a
quantum computer are realized via unitary gates. Gate-model quantum computer …