Summary
Living systems exhibit unique autonomous behaviors such as homeostasis, self-regulation or spontaneous oscillations, not existing in conventional materials. Designing artificial systems with life-like functionalities is a long-standing challenge in chemistry and material science. This groundbreaking research field has been developed exclusively at the molecular and supramolecular level, through chemical self-regulation based on interconnected networks of reactions in solution.
In this project, I will explore a conceptually new and different approach based on interconnected nanomaterials in open atmosphere; I will design a new family of autonomous systems, called porous Nano-Oscillators, exhibiting a “physical” self-regulation mechanism at the nanoscale. To do so, I will engineer nanoparticles, nanoporous materials and light in a very specific way in order to activate artificial feedback loops; self-oscillatory behavior will be time-programmed by exploiting the sorption dynamics of the nanoporous materials.
I will exploit a multidisciplinary approach based on nanochemistry, nanofabrication and optics to fabricate isolated and groups of nano-oscillators and to investigate their dynamic behaviors. By analogy with cells, communication, synchronization and collective response will be investigated by a new methodology able to describe the spatiotemporal evolutions of self-oscillating nano-objects in controlled environments. Themo-optical simulations will support the experimental work by providing thermodynamic and kinetic guidelines.
Inspired by examples from nature, I will provide proof-of-concept of time-programmable, autonomous devices, working in open atmosphere with unprecedented functionalities.
In this project, I will explore a conceptually new and different approach based on interconnected nanomaterials in open atmosphere; I will design a new family of autonomous systems, called porous Nano-Oscillators, exhibiting a “physical” self-regulation mechanism at the nanoscale. To do so, I will engineer nanoparticles, nanoporous materials and light in a very specific way in order to activate artificial feedback loops; self-oscillatory behavior will be time-programmed by exploiting the sorption dynamics of the nanoporous materials.
I will exploit a multidisciplinary approach based on nanochemistry, nanofabrication and optics to fabricate isolated and groups of nano-oscillators and to investigate their dynamic behaviors. By analogy with cells, communication, synchronization and collective response will be investigated by a new methodology able to describe the spatiotemporal evolutions of self-oscillating nano-objects in controlled environments. Themo-optical simulations will support the experimental work by providing thermodynamic and kinetic guidelines.
Inspired by examples from nature, I will provide proof-of-concept of time-programmable, autonomous devices, working in open atmosphere with unprecedented functionalities.
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More information & hyperlinks
| Web resources: | https://cordis.europa.eu/project/id/803220 |
| Start date: | 01-10-2018 |
| End date: | 31-12-2024 |
| Total budget - Public funding: | 1 496 225,00 Euro - 1 496 225,00 Euro |
Cordis data
Original description
Living systems exhibit unique autonomous behaviors such as homeostasis, self-regulation or spontaneous oscillations, not existing in conventional materials. Designing artificial systems with life-like functionalities is a long-standing challenge in chemistry and material science. This groundbreaking research field has been developed exclusively at the molecular and supramolecular level, through chemical self-regulation based on interconnected networks of reactions in solution.In this project, I will explore a conceptually new and different approach based on interconnected nanomaterials in open atmosphere; I will design a new family of autonomous systems, called porous Nano-Oscillators, exhibiting a “physical” self-regulation mechanism at the nanoscale. To do so, I will engineer nanoparticles, nanoporous materials and light in a very specific way in order to activate artificial feedback loops; self-oscillatory behavior will be time-programmed by exploiting the sorption dynamics of the nanoporous materials.
I will exploit a multidisciplinary approach based on nanochemistry, nanofabrication and optics to fabricate isolated and groups of nano-oscillators and to investigate their dynamic behaviors. By analogy with cells, communication, synchronization and collective response will be investigated by a new methodology able to describe the spatiotemporal evolutions of self-oscillating nano-objects in controlled environments. Themo-optical simulations will support the experimental work by providing thermodynamic and kinetic guidelines.
Inspired by examples from nature, I will provide proof-of-concept of time-programmable, autonomous devices, working in open atmosphere with unprecedented functionalities.
Status
SIGNEDCall topic
ERC-2018-STGUpdate Date
27-04-2024
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