"Embedded within the Neyrolles team at IPBS, my research axis (starting in 2025) focuses on how lung stromal niches regulate immune specialization during TB."
Spatial Transcriptomic Image @GCLugo
Rationale: Macrophages at the endothelial-stromal interface regulate vascular permeability and immune cell entry. Multi-omics support a protective role of the mural cell-macrophage interaction against fibrotic evolution.
Main Objectives
Characterize blood vessel plasticity & remodeling
Define the TUBB3⁺ pericyte-like activation and its role in inhibiting fibrosis due to infection
Dissect LYVE1/NG2⁺perivascular macrophage regulation & response to M. tuberculosis
IF Image @Arnaud Metail & Sarah Monard
Rationale: Lung innervation massively increases around the peribronchial regions during infection. The cellular and molecular mechanisms responsible for this phenomenon in the context of tuberculosis remain unexplored.
Main Objectives
Characterize the type of nerves that are increased in response to innervation
Demonstrate the role of Schwann Cells in lung innervation during infection
Identify and characterize nerve-associated macrophages (NAM) in the lung innervation and granuloma contexts
@Iakobachvili N et al. Molecular Microbiology (2021)
Rationale: The alveolar niche is the primary site of M. tuberculosis infection, where tissue signals shape macrophage metabolism and function. We use human organoids and multi-organ-on-chip systems to model these interactions.
Main Objectives
Characterize the type of nerves that are increased in response to innervation
Demonstrate the role of Schwann Cells in lung innervation during infection
Identify and characterize nerve-associated macrophages (NAM) in the lung innervation and granuloma contexts
Single-cell and spatial transcriptomics
Spatial proteomics
Cleared-lung imaging and quantitative pathology
Genetic mouse models
Non-human primate & human translational samples