Starting in 2019, I've been working on the theory of sparsification of artificial neural networks (LTH), and on other problems in machine learning (HID).

Starting in 2021, I've also been working on an integrated assessment modeling library, with the goal of applying **scientific machine learning** for developing models related to the sustainable development goals.

From 2017 until 2022, I've been interested in theoretical and computational neuroscience. I've been a fellow of the Brain and Computation Program of the Simons Institute for the Theory of Computing, and subsequently I've been working on algorithmic problems such as network alignment (BrainAlign), in order to investigate, through a comparative approach, how the central nervous system is organized. I've also worked on the Assembly Calculus, a theoretical framework that explains the emergence of high-level cognition from the low-level behavior of neurons and synapses through an algorithmic formalization of Hebbian learning (AC).

Originally motivated by an interest in the theory of complex systems, my research has focused on computational dynamics (CompDyn, SurvDyn), i.e., simple distributed probabilistic algorithms which allow multi-agent systems to solve global coordination tasks. This class of algorithms has been studied extensively from the perspective of computability theory. However, due to the lack of mathematical tools to rigorously model the behavior of these systems in the short term, efforts to explore these dynamics algorithmically succeeded only recently. My main contributions in this area have been on the fundamental distributed-computing problems of Consensus (StabCons, NoisyUnd), Majority Consensus (SimpleDyn, UndDyn, PhaseTrans) and Distributed Clustering (DistCom, MetaStab, PPComDet, FYPComDet), where I have contributed to proving rigorous results on unexpected aspects of the evolution of computational dynamics (see also (IgnComp, ConsBroad)). Another important part of my research has been to strive to use the aforementioned mathematical tools to problems in theoretical biology, in particular the study of the collective behaviors of biological systems (InfoFlow). In this respect, I have worked on the algorithmic analysis of the behavior of organisms such as ant species (Levy) and Physarum polycephalum (DistFlow).

Beside all that, I investigated some other distributed-computing problems (RepBins, MinMsg, NoisCons, ParLoad), enjoyed working on some algorithm engineering project (Kadabra), and studied the complexity of certain combinatorial puzzles and games (Candy, PegS, CoG).

You can find some of my code on my Github page.

Here's my Mathematics Genealogy Project page. My ErdÅ‘s number is 3, thanks to Giorgio Gambosi.

CC BY-SA 4.0 Emanuele Natale. Last modified: March 11, 2023. Website built with Franklin.jl and the Julia programming language.