Hi, I'm
Head of Technology and Applications @ Haply Robotics
I lead technology and applications at Haply Robotics in Montreal, where we build haptic robots that let people physically feel and interact with the digital world. Our products are used by 150+ customers including Fortune 500s, we have won CES Innovation Awards multiple years running, and we work with some of the biggest names in tech and robotics to push physical AI forward.
I hold a PhD from Sorbonne Université (Paris) and an engineering degree from Arts et Métiers ParisTech. My research took me from micro and nano teleoperation to haptic device design, perception studies, and human-robot interaction, which eventually brought me to Canada for a postdoc at McGill’s Shared Reality Lab. Along the way, I co-authored a few patents, published a bunch of papers, and I teach haptics, engineering, and human-machine interaction at a few Canadian universities.
Outside of work, I run a self-hosted homelab that I blog about, tinker with home automation and open-source projects, and occasionally build things that have nothing to do with haptics.
Tactile rendering, perception, device design
Hardware, control systems, embedded firmware
C/C++, Python, Rust, Java, web
Solidworks, Catia, machining, 3D printing
Docker, GitOps, self-hosting, networking
At present, the operating room (OR) and intensive care unit (ICU) are noisy environments, exacerbated by frequent alarms. Regardless of whether the alarms are valid or false, all command attention, raise stress, and are often irrelevant to the responsibilities of individual clinicians. To cope with these problems, we are investigating the possibility of using audio only for those alarms that should be announced to the entire team, but delivering other alarm cues individually, through haptics vibrations.
Nerve damage, frequently caused by injury, can result in the loss of sensorimotor functions in certain parts of the hand. After suturing the nerve, unpleasant sensations on contact, including tingling and electric shocks are often felt. Following nerve regrowth, it is necessary to re-train the brain to interpret the signals from these nerves correctly. This project involves the design of haptic devices to help in this process of sensory reeducation, which can involve two phases, depending on the severity of the loss of sensitivity: relearning how to localize sensations, and differentiation of shapes and textures in the identification of objects.
The tactile sense can be used as a channel for general communication, especially in contexts where the visual and auditory modalities are occupied with other tasks or compromised. We propose a new method for communicating generic words through the sense of touch that relies on delivering vibration patterns, representing the phonemes composing the words, to the user’s skin through two vibrotactile transducers worn on the forearm. The novelty of this technique is that vibration patterns are created from the audio of the corresponding English phoneme, resulting in vibration patterns that resemble physical characteristics when uttering the phoneme during normal speech.