Atlantic Quantum
@atlanticquantum.bsky.social
Now part of Google Quantum AI. To stay connected, follow our progress at quantumai.google
Led by CEO Bharath Kannan (@bharathkannan.bsky.social), we are taking a first principles approach to develop quantum processors that simultaneously achieve record-low errors, are purpose-built to scale, and are cost-effective enough to deliver economic value.
January 27, 2025 at 3:40 PM
Led by CEO Bharath Kannan (@bharathkannan.bsky.social), we are taking a first principles approach to develop quantum processors that simultaneously achieve record-low errors, are purpose-built to scale, and are cost-effective enough to deliver economic value.
🚀 Starting Moore’s Law for Quantum Compute
Without the breakthrough innovations described above, quantum computing will remain a niche technology. By addressing these challenges together, we can start a new Moore’s Law for the exponential growth of quantum computational power.
Without the breakthrough innovations described above, quantum computing will remain a niche technology. By addressing these challenges together, we can start a new Moore’s Law for the exponential growth of quantum computational power.
January 27, 2025 at 3:39 PM
🚀 Starting Moore’s Law for Quantum Compute
Without the breakthrough innovations described above, quantum computing will remain a niche technology. By addressing these challenges together, we can start a new Moore’s Law for the exponential growth of quantum computational power.
Without the breakthrough innovations described above, quantum computing will remain a niche technology. By addressing these challenges together, we can start a new Moore’s Law for the exponential growth of quantum computational power.
📊 Lower Costs, Greater Impact
Our quantum integrated circuit means that the cost of scaling will be lithographically defined. With this approach, we’re not just building quantum computers—we’re enabling real-world adoption into HPC data centers and unlocking quantum's transformative potential.
Our quantum integrated circuit means that the cost of scaling will be lithographically defined. With this approach, we’re not just building quantum computers—we’re enabling real-world adoption into HPC data centers and unlocking quantum's transformative potential.
January 27, 2025 at 3:39 PM
📊 Lower Costs, Greater Impact
Our quantum integrated circuit means that the cost of scaling will be lithographically defined. With this approach, we’re not just building quantum computers—we’re enabling real-world adoption into HPC data centers and unlocking quantum's transformative potential.
Our quantum integrated circuit means that the cost of scaling will be lithographically defined. With this approach, we’re not just building quantum computers—we’re enabling real-world adoption into HPC data centers and unlocking quantum's transformative potential.
⚡️ The First Quantum Integrated Circuit
We are now integrating our fluxonium qubits with cryogenic controllers into one modular chip stack to create the first integrated circuit for quantum compute. By moving the qubit controls inside of the fridge, we’re enabling unprecedented scalability.
We are now integrating our fluxonium qubits with cryogenic controllers into one modular chip stack to create the first integrated circuit for quantum compute. By moving the qubit controls inside of the fridge, we’re enabling unprecedented scalability.
January 27, 2025 at 3:39 PM
⚡️ The First Quantum Integrated Circuit
We are now integrating our fluxonium qubits with cryogenic controllers into one modular chip stack to create the first integrated circuit for quantum compute. By moving the qubit controls inside of the fridge, we’re enabling unprecedented scalability.
We are now integrating our fluxonium qubits with cryogenic controllers into one modular chip stack to create the first integrated circuit for quantum compute. By moving the qubit controls inside of the fridge, we’re enabling unprecedented scalability.
🤖 The Soul of a New Machine
At the heart of our solution is our fluxonium-based superconducting qubit architecture, which achieve 20X improved single-qubit gate fidelities and 10X improved two-qubit gate fidelities compared to competing state-of-the-art quantum processors.
At the heart of our solution is our fluxonium-based superconducting qubit architecture, which achieve 20X improved single-qubit gate fidelities and 10X improved two-qubit gate fidelities compared to competing state-of-the-art quantum processors.
January 27, 2025 at 3:39 PM
🤖 The Soul of a New Machine
At the heart of our solution is our fluxonium-based superconducting qubit architecture, which achieve 20X improved single-qubit gate fidelities and 10X improved two-qubit gate fidelities compared to competing state-of-the-art quantum processors.
At the heart of our solution is our fluxonium-based superconducting qubit architecture, which achieve 20X improved single-qubit gate fidelities and 10X improved two-qubit gate fidelities compared to competing state-of-the-art quantum processors.