Work supported by @erc.europa.eu @cineca.bsky.social & DISAT & Politecnico di Torino 🙏🙏
Work supported by @erc.europa.eu @cineca.bsky.social & DISAT & Politecnico di Torino 🙏🙏
🙏 @erc.europa.eu, @cscsch.bsky.social, DISAT, Politecnico di Torino, SUPSI🙏
🙏 @erc.europa.eu, @cscsch.bsky.social, DISAT, Politecnico di Torino, SUPSI🙏
In cooperative systems (with internal "interactions-avidity"), the stronger units survive at the expense of the weaker ones!🤯
In cooperative systems (with internal "interactions-avidity"), the stronger units survive at the expense of the weaker ones!🤯
doi.org/10.26434/che...
doi.org/10.26434/che...
Glad to see a section on our 2017 work www.nature.com/articles/s41... explaining via models/simulations how the dynamics of supramolecular polymers is controlled by defects, later observed by experiments @fluorenzo.bsky.social in 2024 (pubs.acs.org/doi/10.1021/...)!
Glad to see a section on our 2017 work www.nature.com/articles/s41... explaining via models/simulations how the dynamics of supramolecular polymers is controlled by defects, later observed by experiments @fluorenzo.bsky.social in 2024 (pubs.acs.org/doi/10.1021/...)!
Congratulations to Cristina Caruso for the massive effort!👏
Congrats to all other coauthors - Martina Crippa, Annalisa Cardellini, Matteo Cioni, Mattia Perrone, @massimodellepiane.bsky.social l - for the huge work!
🙏 @erc.europa.eu for the support 🙏
Congratulations to Cristina Caruso for the massive effort!👏
Congrats to all other coauthors - Martina Crippa, Annalisa Cardellini, Matteo Cioni, Mattia Perrone, @massimodellepiane.bsky.social l - for the huge work!
🙏 @erc.europa.eu for the support 🙏
github.com/GMPavanLab/L...
and at:
doi.org/10.5281/zeno...
github.com/GMPavanLab/L...
and at:
doi.org/10.5281/zeno...
Particularly useful to explore complex dynamical systems whose physics is unknown a priori, as well as to revisit wel-known phenomena under a new perspective.🤯
Particularly useful to explore complex dynamical systems whose physics is unknown a priori, as well as to revisit wel-known phenomena under a new perspective.🤯
1) Detect relevant fluctuations from noise in trajectories
2) Classify fluctuations in types based on their physics
3) Identifying correlations in space & time between fluctuations
4) Unveil local & collective events, their correlations, causal relationships, etc.
1) Detect relevant fluctuations from noise in trajectories
2) Classify fluctuations in types based on their physics
3) Identifying correlations in space & time between fluctuations
4) Unveil local & collective events, their correlations, causal relationships, etc.