Giorgio Marinato
@neurogima.bsky.social
Postdoctoral researcher CNRS, INT, Aix-Marseille with @brungio.bsky.social
Brain waves with MiEEG | Computational Modelling and ML | Auditory + Semantic | Consciousness | Methodologies for #openscience | heavy git user and all things FLOSS
he/any 🏳️🌈
Reposted by Giorgio Marinato
📌 We lay the groundwork for a generative neurophenomenology:
→ integrating first-person experiential data (e.g. micro-phenomenology) at dyadic level
→ with third-person data at the interpersonal, physiological level
→ formalized with modern computational frameworks (2/3)
→ integrating first-person experiential data (e.g. micro-phenomenology) at dyadic level
→ with third-person data at the interpersonal, physiological level
→ formalized with modern computational frameworks (2/3)
August 8, 2025 at 3:16 PM
📌 We lay the groundwork for a generative neurophenomenology:
→ integrating first-person experiential data (e.g. micro-phenomenology) at dyadic level
→ with third-person data at the interpersonal, physiological level
→ formalized with modern computational frameworks (2/3)
→ integrating first-person experiential data (e.g. micro-phenomenology) at dyadic level
→ with third-person data at the interpersonal, physiological level
→ formalized with modern computational frameworks (2/3)
Reposted by Giorgio Marinato
Weaker brain wiring constraints increase multifinality in network outcomes. Specifically, when you weaken the drive to connect neighbours you get more topologically dissimilar networks. Whereas when you weaken the distance penalty, you get connections forming in different places.
October 12, 2023 at 3:27 PM
Weaker brain wiring constraints increase multifinality in network outcomes. Specifically, when you weaken the drive to connect neighbours you get more topologically dissimilar networks. Whereas when you weaken the distance penalty, you get connections forming in different places.
Reposted by Giorgio Marinato
How did we test this? Starting with a neonatal seed network, we simulated the formation of new connections using a computational model. We varied the modelling constraints, and tested whether systematic changes in those constraints shift the properties of the resulting networks
October 12, 2023 at 3:26 PM
How did we test this? Starting with a neonatal seed network, we simulated the formation of new connections using a computational model. We varied the modelling constraints, and tested whether systematic changes in those constraints shift the properties of the resulting networks