In this work, we propose FieldVMC: a generalisation of Vascular Morphogenesis Controller (VMC) built on the field-based paradigm of aggregate computing, supporting arbitrary network topologies and dynamics and streamlining principled engineering of self-organising structures. At the core, we redesign the VMC model as a field-based computation, enabling the emergence of organisational hierarchies in a decentralised and asynchronous way. By inheriting key properties of aggregate computing, like scalability, asynchronicity, modularity, and reusability, FieldVMC extends the potential domains of application of the original VMC approach. We show by simulation that FieldVMC enables new novel sorts of phenomena to be captured, studied, and engineered, including: self-construction of tree structures from a single node (germination), self-healing of damaged structures (cutting), self-integration of disjoint structures (grafting), self-segmentation in autonomous sub-structures (budding), and self-optimisation of existing structures (abscission and regrowth).
Cortecchia, A., Pianini, D., Ciatto, G., Casadei, R. (2024). An Aggregate Vascular Morphogenesis Controller for Engineered Self-Organising Spatial Structures. Institute of Electrical and Electronics Engineers Inc. [10.1109/ACSOS61780.2024.00032].
An Aggregate Vascular Morphogenesis Controller for Engineered Self-Organising Spatial Structures
Cortecchia A.;Pianini D.;Ciatto G.;Casadei R.
2024
Abstract
In this work, we propose FieldVMC: a generalisation of Vascular Morphogenesis Controller (VMC) built on the field-based paradigm of aggregate computing, supporting arbitrary network topologies and dynamics and streamlining principled engineering of self-organising structures. At the core, we redesign the VMC model as a field-based computation, enabling the emergence of organisational hierarchies in a decentralised and asynchronous way. By inheriting key properties of aggregate computing, like scalability, asynchronicity, modularity, and reusability, FieldVMC extends the potential domains of application of the original VMC approach. We show by simulation that FieldVMC enables new novel sorts of phenomena to be captured, studied, and engineered, including: self-construction of tree structures from a single node (germination), self-healing of damaged structures (cutting), self-integration of disjoint structures (grafting), self-segmentation in autonomous sub-structures (budding), and self-optimisation of existing structures (abscission and regrowth).I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.