QuEra
Computing
COMPUTE THE IMPOSsIBLE™
Building scalable quantum machines to make impossible problems simple.
Building scalable quantum machines to make impossible problems simple.
Quantum computers have the potential to solve both existing computational problems much faster and problems that are beyond the capabilities of today’s most powerful supercomputers.
Atoms are nature's perfect qubits, all identical to one another without even the possibility of defects. We leverage these properties to store and process quantum information.
Using our advanced techniques of atom-by-atom assembly, Rydberg atoms can be arranged in large 1D, 2D, or 3D arrays and addressed individually with high precision, promising very high scalability.
Rydberg atoms interact on-demand - when illuminated with laser light, they take on enormous size and interact over long distances, but left in the dark, they keep to themselves.
Our machine is entering a nonsimulatable regime for practical problems, such as scientific simulation and optimization. In such regimes, classical supercomputers are not adequate for solving problems.
Our systems allow for creating states of qubits that are protected from errors. This increases the computational power of our machines significantly.
Using long-ranged interactions between atomic qubits, our machine can efficiently implement multi-qubit gates. Reducing the overhead in decomposing multi-qubit gates into a sequence of singe-qubit and two-qubit operations increases the quality of results. This provides an opportunity for a new class of algorithms.
QuEra’s Roadmap in comparison to IonQ and IBM roadmaps, based on Scaling IonQ's Quantum Computers: The Roadmap article and Algorithmic Qubit Calculator. QuEra Programmable Quantum Simulator (Quera PQS) machine is used to refine technology for universal programming in 1-2 years timeframe (see dotted red arrow).