Institution profile

Munich Center for Quantum Science and Technology

Academic institutioneurope · de
Official website
Research library6linked papers
Opportunities0open roles
Selected work

Representative Papers

Spiking neural networks for streaming qubit readout

Oct 01, 2026

This study addresses the limitations of conventional matched filtering in superconducting qubit readout, which struggles with crosstalk and transient noise while lacking real-time streaming estimation capabilities. To overcome these challenges, this work proposes a chunked streaming quantum state classification method based on spiking neural networks (SNNs). By leveraging quantization-aware training (QAT) and HLS4ML synthesis techniques, the model is efficiently deployed on an FPGA platform to enable low-latency hardware inference. Experimental results demonstrate that a single inference completes before the arrival of the subsequent data chunk, providing dynamically evolving state estimates with high accuracy that approach those of full-trajectory artificial neural networks (ANNs). This work establishes the potential of SNNs for real-time quantum control and scientific inference applications.

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The entanglement-assisted transmission capacity is a strong converse bound for identification

Aug 11, 2026

This study investigates the fundamental limits of classical identification over quantum channels, with a focus on the relationship between identification capacity and transmission capacity in the presence of entanglement assistance. By integrating Hayden–Winter quantum identification codes, the entanglement-assisted communication model, and an analysis of the transpose depolarizing channel, the work establishes—for the first time—that the entanglement-assisted transmission capacity serves as a strong converse upper bound on the identification capacity. The main contributions include precisely characterizing the identification capacity as achieving this bound in the low-noise regime, constructing an explicit family of channels for which the identification capacity is strictly smaller than the bound in general, and uncovering the first known instance of strict superadditivity of identification capacity.

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Recent publications

Latest Papers

Spiking neural networks for streaming qubit readout

Oct 01, 2026

This study addresses the limitations of conventional matched filtering in superconducting qubit readout, which struggles with crosstalk and transient noise while lacking real-time streaming estimation capabilities. To overcome these challenges, this work proposes a chunked streaming quantum state classification method based on spiking neural networks (SNNs). By leveraging quantization-aware training (QAT) and HLS4ML synthesis techniques, the model is efficiently deployed on an FPGA platform to enable low-latency hardware inference. Experimental results demonstrate that a single inference completes before the arrival of the subsequent data chunk, providing dynamically evolving state estimates with high accuracy that approach those of full-trajectory artificial neural networks (ANNs). This work establishes the potential of SNNs for real-time quantum control and scientific inference applications.

0 citationsRead paper

The entanglement-assisted transmission capacity is a strong converse bound for identification

Aug 11, 2026

This study investigates the fundamental limits of classical identification over quantum channels, with a focus on the relationship between identification capacity and transmission capacity in the presence of entanglement assistance. By integrating Hayden–Winter quantum identification codes, the entanglement-assisted communication model, and an analysis of the transpose depolarizing channel, the work establishes—for the first time—that the entanglement-assisted transmission capacity serves as a strong converse upper bound on the identification capacity. The main contributions include precisely characterizing the identification capacity as achieving this bound in the low-noise regime, constructing an explicit family of channels for which the identification capacity is strictly smaller than the bound in general, and uncovering the first known instance of strict superadditivity of identification capacity.

0 citationsRead paper