New research reveals how the inherent redundancies within Renaissance Italian dramatically limit the possible solutions for simple substitution ciphers, impacting both classical and quantum search algorithms.
A new algorithm harnesses the power of quantum computing to solve optimization problems governed by partial differential equations, potentially bypassing limitations of classical approaches.
A new approach to hardware and compiler design unlocks significant performance gains for quantum programs running on multiple quantum processors.
A new optimization technique dramatically reduces the computational cost of training variational quantum circuits by cleverly estimating gradient information.
A new technique enhances the performance of dynamical decoupling by actively suppressing control errors and extending qubit coherence times.
A new open-source simulator, Sdim, tackles the complex challenge of modeling large-scale error correction for qudit-based quantum computers.
Researchers have demonstrated a novel approach to quantum error correction using artificial intelligence, paving the way for more stable and scalable quantum computers.
Researchers are now able to simulate complex quantum systems that break the traditional rules of molecular physics, paving the way for a deeper understanding of exotic chemical species.
New research demonstrates a resource-efficient approach to integer factorization on quantum computers by streamlining the adiabatic quantum computation process.
A new analysis details the trade-offs between different architectural approaches to building large-scale, fault-tolerant quantum computers.