D-Wave Quantum Inc.'s Advanced Cryogenic Packaging Initiative FAQ

What is D-Wave Quantum Inc.’s new initiative about?

D-Wave Quantum Inc. has launched an advanced cryogenic packaging initiative to accelerate the development of both its gate-model and annealing quantum processors, leveraging its superconducting packaging expertise.

Why is this initiative significant?

This initiative is significant because it aims to expand multichip capabilities and manufacturing processes to support larger, more powerful quantum systems, positioning D-Wave to advance toward 100,000 qubits.

How does D-Wave plan to achieve this advancement?

D-Wave plans to leverage superconducting bump-bond technology developed at NASA’s Jet Propulsion Laboratory and has demonstrated end-to-end superconducting interconnects between chips, a key step in scaling its quantum architectures.

Who is leading this initiative at D-Wave?

Chief Development Officer Trevor Lanting is leading this initiative, which is part of D-Wave’s effort to advance its product roadmap and extend its leadership in quantum systems technology.

What are the expected outcomes of this initiative?

The expected outcomes include the acceleration of quantum processor development, expansion of multichip capabilities, and the advancement toward 100,000 qubits, enhancing D-Wave’s quantum computing systems.

Where can I find more information about this initiative?

More information can be found in the full press release available at https://ibn.fm/bIugS or on D-Wave’s website at www.dwavequantum.com.

What makes D-Wave’s quantum computers unique?

D-Wave’s quantum computers are unique as they are the world’s first commercial suppliers of quantum computers, featuring QPUs with sub-second response times and can be deployed on-premises or accessed through their quantum cloud service.

How can organizations benefit from D-Wave’s technology?

Organizations can benefit by applying D-Wave’s technology to address use cases spanning optimization, artificial intelligence, research, and more, leveraging the world’s largest quantum computers for their toughest computational challenges.