Quantum computing holds massive potential, from drug discovery to logistics and cryptography. But delivering on this promise requires far more computational power than today’s standalone QPUs can offer.
Even basic applications demand millions of gates and thousands of logical qubits. Achieving this means building fault-tolerant systems usi
Quantum computing holds massive potential, from drug discovery to logistics and cryptography. But delivering on this promise requires far more computational power than today’s standalone QPUs can offer.
Even basic applications demand millions of gates and thousands of logical qubits. Achieving this means building fault-tolerant systems using large networks of error-corrected physical qubits, an approach that comes with major hardware overhead and scalability limits.
Without new architectures, quantum computing may never reach its full impact.
To scale quantum computing and unlock far greater computational power, we need to connect processors together. Combining more QPUs into a single monolithic quantum supercomputer, with cryogenic microwave couplers, can increase computational capacity but it also creates a single point of failure. These large, tightly integrated systems are
To scale quantum computing and unlock far greater computational power, we need to connect processors together. Combining more QPUs into a single monolithic quantum supercomputer, with cryogenic microwave couplers, can increase computational capacity but it also creates a single point of failure. These large, tightly integrated systems are harder to maintain, more sensitive to faults, and risk complete shutdown from localized issues. The result: reduced uptime, lower reliability, and limited scalability.
Our high-performance microwave-optical interconnect hardware and advanced orchestration software will enable distributed architectures that outperform monolithic systems, unlocking unprecedented computational power and real-world applications at scale across industries. Modularity also improves system uptime by allowing individual compon
Our high-performance microwave-optical interconnect hardware and advanced orchestration software will enable distributed architectures that outperform monolithic systems, unlocking unprecedented computational power and real-world applications at scale across industries. Modularity also improves system uptime by allowing individual components and processors to be upgraded or serviced without disrupting the entire network, streamlining maintenance and accelerating deployment.
