top of page

T3

Sensing for Robotics

14:00 - 17.30

ROOM MAGNA

CHAIRS

Piotr Kmon (AGH University of Krakow, PL)

Noel O’Riordan (Infineon Technologies Ireland Limited, IR)

ABSTRACT

...

PROGRAM

13:00 - 14:00 

Lunch

​

14:00 - 14:45

From Chips to Joints: Semiconductor Innovation Enabling a New Era of Humanoid Actuators

Maurizio Incurvati (Infineon Technologies, Villach, AT)

Smart actuators are redefining humanoid robotics, unlocking human-like movement through unprecedented efficiency, precision, and compliance. Unlike industrial automation, humanoids operate in unstructured, dynamic environments demanding coordinated multi-joint control, real-time balance, and safe human interaction. The deep integration of GaN technology transforms motor drive performance, delivering superior power density, faster switching, and enhanced thermal management for compact actuator design. Fully integrated power, control, and sensing solutions — combining tactile, force, and position feedback — are particularly disruptive for dexterous hands. Real-time deterministic connectivity between actuators and central GPUs ensures seamless motion control. This tutorial explores how these converging semiconductor advances pioneer the next generation of intelligent, safe humanoid actuators.

 

14:45 - 15:30

Mechatronic Sensors for Robots: Force and Torque Sensors for Motion Control and Dexterous Manipulation

Gaël Close (Melexis Technologies SA, Bevaich, CH)

Mechatronic sensors are high-value differentiators in humanoid robots, requiring integrated solutions across chip design, mechanical systems, and software ecosystems. This talk focuses on force and torque sensors (scalar and 3D vectors) for joint control and dexterous manipulation. Through case studies, we explore contactless sensing modalities: inductive, capacitive, and magnetic, achieving accurate measurements while rejecting parasitic errors. We discuss chip and mechanics co-design principles. The talk concludes with an outlook on perception capabilities enabled by on-chip AI accelerators, unlocking significant value through integrated sensors and digital companion services such as physics models for simulation based reinforcement learning.

 

15:30 - 16:00 

Coffee break

 

16:00 - 16:45

Interfacing and Conversion of Robotic Sensor Signals

Pieter Harpe (Eindhoven University of Technology, NL)

Robotics cover a wide range of categories, including industrial robots, drones, humanoids, cobots, and neurorobotics. While they all need sensors to retrieve input from the environment, the vast application range implies an equally wide range of sensor solutions is needed. This presentation will start with an overview of sensors for robotics, and then focuses on the required circuits to capture and digitize the sensor information. Major challenges and practical solutions for different sensor interfaces are highlighted, including techniques to improve resolution, precision, dynamic range, and bandwidth. Besides showing classical approaches, some novel approaches for scaled technologies are also illustrated.

 

16:45 - 17:30 

Functional Safety Aspects of Robotics

Carolina Di Napoli (Infineon Technologies, Padova, IT)

As humanoid robots increasingly enter real-world environments, functional safety becomes a critical concern. This tutorial introduces functional safety in humanoid robotics, a field that presents new challenges compared with traditional industrial applications governed by the Machinery Regulation, from dynamic stability and balance control to new safe-state concepts. One illustrative case is the motor-control design for humanoid joints. Addressing it begins with a hazard and risk assessment to assign the required performance level, which then drives architectural and component choices. The design process concludes with safety analysis. The tutorial highlights the role of ISO 26262- and IEC 61508-compliant semiconductors in enabling functional safety, and explores levels of redundant architectures appropriate to the target safety functions and the environments in which the humanoid will operate

BIOSKETCHES

Maurizio Incurvati

Maurizio Incurvati is Lead Principal Engineer at Infineon Technologies, focusing on innovation in GaN-based motor drives. His recent work targets actuator challenges and system requirements for humanoid robotics. He has also been teaching power electronics, motor drives, industrial electronics, and control engineering at the university level. Over his career, he has led R&D activities on integrated modular motor drives, GaN converters, and SiC inverters for UAVs, and has coauthored numerous conference and journal publications with industry and academia. Earlier roles included power-conversion development for large wind turbines and precision measurement, and dc-dc supplies for fundamental-physics research. 

​

​

Pieter Harpe 

Eindhoven University of Technology, The Netherlands Pieter Harpe received the M.Sc. and Ph.D. degrees from the Eindhoven University of Technology, The Netherlands, in 2004 and 2010, respectively. He worked for several years at imec, The Netherlands, on low-power ADCs for wireless communication. In April 2011, he joined Eindhoven University of Technology where he is currently an Associate Professor on low-power mixed-signal circuits. Dr. Harpe is TPC subcommittee chair for ISSCC, TPC member for A-SSCC, Associate Editor for TCAS-I, SSCS AdCom Member-at-Large, and an IEEE SSCS Distinguished Lecturer.

​

​

Carolina Di Napoli

Carolina Di Napoli is an Application Functional Safety Expert at Infineon Technologies Italy (since 2021). With more than 25 years in industrial applications and compliance, she helps customers apply Infineon’s high-performance, real-time microcontrollers in safety-critical systems, aligning product integration and engineering processes with IEC/ISO functional safety requirements. Her expertise spans safety concepts; ASIL/SIL allocation; diagnostic coverage and architectural metrics (SPFM, LFM, PMHF); FMEDA and FTA; verification and validation; and safety case delivery. Carolina also contributes to global standards development, serving as a technical expert on the third edition of IEC 61508 and ISO 26262, and on AI and functional safety topics within ISO/IEC JTC 1/SC 42 JWG 4. Her work bridges automotive, industrial, and AI domains, covering safety architectures, development lifecycles, and compliance strategies for next-generation embedded system

bottom of page