A Continuous-Time Collocated Force-Feedback and Readout Front-End for MEM Gyroscopes. - Sebastian Nessler; Maximilian Marx 002; Michael Maurer; Stefan Rombach; Yiannos Manoli (ESSCIRC, 2015)

Q-enhancement of a low-power gm-C bandpass filter for closed-loop sensor readout applications. - Daniel DeDorigo; Stefan Rombach; Michael Maurer; Maximilian Marx 002; Sebastian Nessler; Yiannos Manoli (ISCAS, 2015)

An Interface ASIC for MEMS Vibratory Gyroscopes With a Power of 1.6 mW, 92 dB DR and 0.007°/s/√Hz Noise Floor Over a 40 Hz Band. - Stefan Rombach; Maximilian Marx 002; Sebastian Nessler; Daniel DeDorigo; Michael Maurer; Yiannos Manoli (IEEE J. Solid State Circuits, 2016)

9.4 A 27µW 0.06mm2 background resonance frequency tuning circuit based on noise observation for a 1.71mW CT-ΔΣ MEMS gyroscope readout system with 0.9°/h bias instability. - Maximilian Marx 002; Daniel DeDorigo; Sebastian Nessler; Stefan Rombach; Michael Maurer; Yiannos Manoli (ISSCC, 2017)

A fully immersible deep-brain neural probe with modular architecture and a delta-sigma ADC integrated under each electrode for parallel readout of 144 recording sites. - Daniel DeDorigo; Christian Moranz; Hagen Graf; Maximilian Marx 002; Boyu Shui; Matthias Kuhl; Yiannos Manoli (ISSCC, 2018)

Fully Immersible Subcortical Neural Probes With Modular Architecture and a Delta-Sigma ADC Integrated Under Each Electrode for Parallel Readout of 144 Recording Sites. - Daniel DeDorigo; Christian Moranz; Hagen Graf; Maximilian Marx 002; Daniel Wendler; Boyu Shui; Abdalrahman Sayed Herbawi; Matthias Kuhl; Patrick Ruther; Oliver Paul; Yiannos Manoli (IEEE J. Solid State Circuits, 2018)

A 27 $ mu text{W}$ 0.06 mm2 Background Resonance Frequency Tuning Circuit Based on Noise Observation for a 1.71 mW CT- $ Delta Sigma $ MEMS Gyroscope Readout System With 0.9 °/h Bias Instability. - Maximilian Marx 002; Daniel DeDorigo; Sebastian Nessler; Stefan Rombach; Yiannos Manoli (IEEE J. Solid State Circuits, 2018)

A Self-Test on Wafer Level for a MEM Gyroscope Readout Based on ΔΣ Modulation. - Sebastian Nessler; Maximilian Marx 002; Yiannos Manoli (IEEE Trans. Circuits Syst. I Regul. Pap., 2018)

A Lorentz Force Magnetometer with 600 nT/√Hz Resolution over a Bandwidth of 480 Hz utilizing Force Feedback and CMOS Readout Electronics. - Daniel Krawat; Maximilian Marx 002; Sebastian Nessler; Helena Biegler; Matthias Dienger; Jan Rockstroh; Alfons Dehé; Yiannos Manoli (IEEE SENSORS, 2019)

A Capacitive Readout Circuit for a Disposable Low-Cost Pressure and Flow Sensor with 200 Pa or 170 nl/s Resolution. - Sebastian Nessler; Sabrina Kartmann; Lena Mutter; Christoph Grandauer; Maximilian Marx 002; Roland Zengerle; Yiannos Manoli (IEEE SENSORS, 2019)

A 141-µW High-Voltage MEMS Gyroscope Drive Interface Circuit Based on Flying Capacitors. - Maximilian Marx 002; Stefan Rombach; Sebastian Nessler; Daniel De Dorigo; Yiannos Manoli (IEEE J. Solid State Circuits, 2019)

An Automatic MEMS Gyroscope Mode Matching Circuit Based on Noise Observation. - Maximilian Marx 002; Xavier Cuignet; Sebastian Nessler; Daniel De Dorigo; Yiannos Manoli (IEEE Trans. Circuits Syst. II Express Briefs, 2019)

28.7 A 0.00378mm2 Scalable Neural Recording Front-End for Fully Immersible Neural Probes Based on a Two-Step Incremental Delta-Sigma Converter with Extended Counting and Hardware Reuse. - Daniel Wendler; Daniel De Dorigo; Mohammad Amayreh; Alexander Bleitner; Maximilian Marx 002; Yiannos Manoli (ISSCC, 2021)

A 0.0046-mm2 Two-Step Incremental Delta-Sigma Analog-to-Digital Converter Neuronal Recording Front End With 120-mVpp Offset Compensation. - Daniel Wendler; Daniel De Dorigo; Mohammad Amayreh; Alexander Bleitner; Maximilian Marx 002; Roman Willaredt; Yiannos Manoli (IEEE J. Solid State Circuits, 2023)