SOI CMOS technology for quantum information processing. - Louis Hutin; Benoit Bertrand; Romain Maurand; Matias Urdampilleta; Baptiste Jadot; Heorhii Bohuslavskyi; L. Bourdet; Yann-Michel Niquet; Xavier Jehl; Sylvain Barraud; C. Bauerle; Tristan Meunier; et al. (ICICDT, 2017)

Coupling control in the few-electron regime of quantum dot arrays using 2-metal gate levels in CMOS technology. - Bruna Cardoso Paz; Victor El-Homsy; David J. Niegemann; Bernhard Klemt; Emmanuel Chanrion; Vivien Thiney; Baptiste Jadot; Pierre-André Mortemousque; Benoit Bertrand; Thomas Bedecarrats; Heimanu Niebojewski; François Perruchot; et al. (ESSCIRC, 2022)

A Cryogenic Active Router for Qubit Array Biasing from DC to 320 MHz at 100 nm Gate Pitch. - Baptiste Jadot; Marcos Zurita; Gérard Billiot; Yvain Thonnart; Loïck Le Guevel; Mathieu Darnas; Candice Thomas; Jean Charbonnier; Tristan Meunier; Maud Vinet; Franck Badets; Gaël Pillonnet (ESSCIRC, 2023)

A 7.4μW and 860μm2per Channel Cryo-CMOS IC for 70-Channel Frequency-Multiplexed μs-Readout of Semiconductor Qubits. - Quentin Schmidt; Brian Martinez; Thomas Houriez; Baptiste Jadot; Aloysius G. M. Jansen; Xavier Jehl; Tristan Meunier; Gaël Pillonnet; Gérard Billiot; Adrien Morel; Yvain Thonnart; Franck Badets (CICC, 2024)

Cryogenic Circuit Performance Prediction Using Design-Oriented Model (SEKV) On 22nm FDSOI. - Brian Martinez; Hung-Chi Han; Flávio Enrico Bergamaschi; Quentin Schmidt; Antoine Faurie; Edoardo Charbon; Yvain Thonnart; Baptiste Jadot; Xavier Jehl; Mikaël Cassé; Christian C. Enz; Franck Badets (ISCAS, 2025)

13.5 An 18.5µW/qubit Cryo-CMOS Charge-Readout IC Demonstrating QAM Multiplexing for Spin Qubits. - Quentin Schmidt; Baptiste Jadot; Brian Martinez; Antoine Faurie; Tristan Meunier; Jean-Baptiste Casanova; Xavier Jehl; Yvain Thonnart; Franck Badets (ISSCC, 2025)