Prof. Graciani
@graciani.bsky.social
Faculty at the Institut Polytechnique de Paris.
Statistical optics + physics-informed deep-learning.
Science communication | Modern art | Consulting
Statistical optics + physics-informed deep-learning.
Science communication | Modern art | Consulting
Our latest article: Theoretical predictions for ultrasensitive sensing in three-dimensional stochastic interferometry
Now available on open access doi.org/10.1103/7fhh...
@physrevresearch.bsky.social
@telecom-sudparis.bsky.social
Now available on open access doi.org/10.1103/7fhh...
@physrevresearch.bsky.social
@telecom-sudparis.bsky.social
November 3, 2025 at 1:09 PM
Our latest article: Theoretical predictions for ultrasensitive sensing in three-dimensional stochastic interferometry
Now available on open access doi.org/10.1103/7fhh...
@physrevresearch.bsky.social
@telecom-sudparis.bsky.social
Now available on open access doi.org/10.1103/7fhh...
@physrevresearch.bsky.social
@telecom-sudparis.bsky.social
Step 1: lock photons inside a reflective cavity
Step 2: watch them form a random superposition of waves
Step 3: introduce a perturbation (cavity geometry, wavelength, refractive index inside…)
Step 4: you now have an ultrasensitive 3D stochastic interferometer
doi.org/10.1103/7fhh... 💡
Step 2: watch them form a random superposition of waves
Step 3: introduce a perturbation (cavity geometry, wavelength, refractive index inside…)
Step 4: you now have an ultrasensitive 3D stochastic interferometer
doi.org/10.1103/7fhh... 💡
Theoretical predictions for ultrasensitive sensing in three-dimensional stochastic interferometry
We show that a random light field can be harnessed for high-precision metrology by introducing specific boundary conditions in the form of Lambertian reflections inside a cavity. We demonstrate a quan...
doi.org
November 3, 2025 at 1:08 PM
Step 1: lock photons inside a reflective cavity
Step 2: watch them form a random superposition of waves
Step 3: introduce a perturbation (cavity geometry, wavelength, refractive index inside…)
Step 4: you now have an ultrasensitive 3D stochastic interferometer
doi.org/10.1103/7fhh... 💡
Step 2: watch them form a random superposition of waves
Step 3: introduce a perturbation (cavity geometry, wavelength, refractive index inside…)
Step 4: you now have an ultrasensitive 3D stochastic interferometer
doi.org/10.1103/7fhh... 💡
Interested in both experimental physics and deep-learning?
Come have a look at this Ph.D. offer and maybe join us in Paris. 👇💡
Come have a look at this Ph.D. offer and maybe join us in Paris. 👇💡
January 28, 2025 at 11:43 AM
Interested in both experimental physics and deep-learning?
Come have a look at this Ph.D. offer and maybe join us in Paris. 👇💡
Come have a look at this Ph.D. offer and maybe join us in Paris. 👇💡