INVITED SPEAKERS (to be confirmed)
Dr Maud Vinet, Quantum computing program manager CEA-Leti We have put a multidisciplinary and multi institutions team which gathers quantum physicists, integration and devices engineers, circuit designers and quantum information engineers. We want to build a quantum processor. We are aiming at delivering prototypes with a 100 qubits within 6 years and at having identified the key scientific and roadblocks for scaling up. Quantum computing is expected to extend the high performance computing roadmap at the condition of being able to operate a large number of qubits. Si-based QC appears as a promising approach to build a quantum processor; thanks to the size of the qubits, the quality of the quantum gates and the VLSI ability to fabricate billions of closely identical objects. The quality of Si spin qubits has improved very fast with the introduction of isotopically purified 28Si, as observed by multiple research groups. In this presentation, we will discuss the architectures to design a large scale quantum computer based on Si spin qubits and we will review the associated technological challenges and needs for material development. |
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Molecular Design of Hybrid Dielectrics at the Extreme Limits of Molecular-scale Confinement |
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High-resolution 3D Imaging of BEoL and Advanced Packaging Structures using X-ray Microscopy |
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New plasma approaches for atomic scale precision etching CEA-LETI, MINATEC Campus |
In situ X-ray studies of the incipient ZnO Atomic Layer Deposition on In0.53Ga0.47As
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The role of cryo-CMOS in quantum computers Pr Edoardo Charbon |
Sophisticated Architecture for High Bandwidth |
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CEA-Leti in the Chiplet’s race |
Introduction to the Class of 2D Materials with a focus to hBN |
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Some issues associated to the formation and stability of contacts in microelectronics: agglomeration, nucleation… |
Embedded non-volatile-memories (eNVM) STMicroelectronics, Crolles, France |
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Interconnect Resistance Evolution Dependence on Material and Structure Dimensions Jonathan Reid |
QUANTUM WORKSHOP SPEAKERS
Materials frontiers to empower quantum computing |
Topological properties of Andreev states in superconductor-semiconductor hybrid junctions |
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High Impedance Quantum Circuits |
Quantum computing with spin qubits in semiconductor: a gate fidelity comparison |
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Large scale optomechanics and nanoresonator applications. |
Superconducting Silicon and quantum devices |
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Shadow Epitaxy for In Situ Growth of Generic Semiconductor/Superconductor Hybrids |
Nano-optomechanics with ultrasensitive nanowire force sensors |