Researchers are developing algorithms and machine learning methods to further our understanding of the quantum state space.
Computer simulations of organic materials for next-generation batteries
Computer simulations provide a better means of optimizing, predicting, and understanding experimental observations in the search for new battery materials.
A step towards fully computerized device-level engineering
The future will witness a gradual shift in which computational models will play a progressively larger role in identifying new materials for specific purposes.
A stitch in time: How a quantum physicist invented new code from old tricks
An exciting and exotic approach to minimizing error in quantum computation re-purposes a known code to achieve what many researchers thought was impossible.
Developing artificial enzymes using computers
Artificial enzymes promise to not only help us understand the complex functioning of enzymes, but will create a new generation of biosystems for sustainable chemistry practices.
A Leap for Quantum Computing: Silicon Quantum Bits Establish a Long-Distance Relationship
Princeton scientists demonstrate that two silicon quantum bits can communicate across relatively long distances in a turning point for the technology.
A Quantum Autoencoder via Quantum Adders
A quantum autoencoder via approximate quantum adders in the Rigetti cloud quantum computer is carried out employing up to three qubits.
1st International Symposium on Single Photon-based Quantum Technologies
Bringing together leading quantum researchers to pave the way towards quantum-enabled devices in the near future.
Novel Divide-and-Conquer-Based Computer Simulations
Computer simulations provide valuable and often critical insight into the structure and properties of materials and molecules.
Entrance ticket for the Quantum World
The field of quantum simulations leads to the exciting adventure of describing and understanding the quantum world better than ever.