Programmable Nanomatter
PRONANO aims to design autonomous nanoscale units for programmable self-assembly into complex structures in response to external stimuli, enhancing nanotechnology applications in various fields.
Projectdetails
Introduction
PRONANO will develop both theoretical and experimental methods to design autonomous nanoscale units that are able to carry out logic operations in order to self-assemble into distinct structures determined by external stimuli.
Self-Assembly Mechanism
The nanounits will be programmed to assemble via a controlled self-assembly kinetic pathway, ultimately enabling programmable nanomatter.
Algorithmic Framework
We will develop a new algorithmic framework that will find the optimal set of interactions and logic gate controls required for the coordinated function of nanoparticles.
Modeling and Simulation
We will use multiscale coarse-grained modeling to design and simulate interactions of nanostructures with the capabilities to carry out computation and communication with other nanoparticles in order to act as a programmable swarm.
Experimental Realization
We will realize these nanostructures experimentally using DNA nanotechnology, creating a system that can dynamically react to an externally introduced stimulus that induces them to self-assemble into target finite-sized structures.
Methodological Innovations
This work will create new methods for nanotechnology that combine optimization theory, molecular simulations, and experiments to study the kinetics and thermodynamics of hierarchical multicomponent assembly.
Universal Design Rules
As part of this effort, we will develop universal design rules to obtain a set of DNA nanostructures that can carry out computation and communication in order to achieve specific nanostructures as instructed by a biomolecule (DNA, RNA, or protein) that will act as an external stimulus.
Applications and Impact
Thus, we will create a system that is both computationally tractable and can be realized and iterated experimentally, opening new venues for nanorobotics and self-organized systems.
- It will enable nanoscale construction of complex three-dimensional structures as a response to external conditions.
- Applications include molecular manufacturing, therapeutics, diagnostics, and smart material construction.
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 1.499.153 |
Totale projectbegroting | € 1.499.153 |
Tijdlijn
Startdatum | 1-1-2023 |
Einddatum | 31-12-2027 |
Subsidiejaar | 2023 |
Partners & Locaties
Projectpartners
- TECHNISCHE UNIVERSITAET MUENCHENpenvoerder
- RHEINISCHE FRIEDRICH-WILHELMS-UNIVERSITAT BONN
Land(en)
Vergelijkbare projecten binnen European Research Council
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MANUNKIND: Determinants and Dynamics of Collaborative Exploitation
This project aims to develop a game theoretic framework to analyze the psychological and strategic dynamics of collaborative exploitation, informing policies to combat modern slavery.
Elucidating the phenotypic convergence of proliferation reduction under growth-induced pressure
The UnderPressure project aims to investigate how mechanical constraints from 3D crowding affect cell proliferation and signaling in various organisms, with potential applications in reducing cancer chemoresistance.
Uncovering the mechanisms of action of an antiviral bacterium
This project aims to uncover the mechanisms behind Wolbachia's antiviral protection in insects and develop tools for studying symbiont gene function.
The Ethics of Loneliness and Sociability
This project aims to develop a normative theory of loneliness by analyzing ethical responsibilities of individuals and societies to prevent and alleviate loneliness, establishing a new philosophical sub-field.
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Electrically driven DNA-origami-based machines
This project aims to develop advanced artificial molecular machines using DNA origami and electromechanical actuation for precise control and functionality, potentially revolutionizing nanoscale engineering.
Computation driven development of novel vivo-like-DNA-nanotransducers for biomolecules structure identification
This project aims to develop DNA-nanotransducers for real-time detection and analysis of conformational changes in biomolecules, enhancing understanding of molecular dynamics and aiding drug discovery.
Functional Nanoscale Therapeutics
Develop functional hybrid nanoscale medicines to enhance intracellular delivery of mRNA and combat nanoscale pathogens, aiming for advanced therapies against diseases like cancer.
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The project aims to develop DNA-encoded dynamic principles to create adaptive synthetic materials with life-like characteristics and multifunctional capabilities through innovative self-assembly and genetic programming.