A continuous approach of modeling tumorigenesis and axons regulation for the pancreatic cancer

Fuente: arXiv
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Autores principales: Chaaya, Marie-Jose, Chauvet, Sophie, Hubert, Florence, Mann, Fanny, Mezache, Mathieu, Pudlo, Pierre
Formato: Preprint
Publicado: 2024
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author Chaaya, Marie-Jose
Chauvet, Sophie
Hubert, Florence
Mann, Fanny
Mezache, Mathieu
Pudlo, Pierre
author_facet Chaaya, Marie-Jose
Chauvet, Sophie
Hubert, Florence
Mann, Fanny
Mezache, Mathieu
Pudlo, Pierre
contents The pancreatic innervation undergoes dynamic remodeling during the development of pancreatic ductal adenocarcinoma (PDAC). Denervation experiments have shown that different types of axons can exert either pro- or anti-tumor effects, but conflicting results exist in the literature, leaving the overall influence of the nervous system on PDAC incompletely understood. To address this gap, we propose a continuous mathematical model of nerve-tumor interactions that allows in silico simulation of denervation at different phases of tumor development. This model takes into account the pro- or anti-tumor properties of different types of axons (sympathetic or sensory) and their distinct remodeling dynamics during PDAC development. We observe a "shift effect" where an initial pro-tumor effect of sympathetic axon denervation is later outweighed by the anti-tumor effect of sensory axon denervation, leading to a transition from an overall protective to a deleterious role of the nervous system on PDAC tumorigenesis. Our model also highlights the importance of the impact of sympathetic axon remodeling dynamics on tumor progression. These findings may guide strategies targeting the nervous system to improve PDAC treatment.
format Preprint
id arxiv_https___arxiv_org_abs_2404_02539
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle A continuous approach of modeling tumorigenesis and axons regulation for the pancreatic cancer
Chaaya, Marie-Jose
Chauvet, Sophie
Hubert, Florence
Mann, Fanny
Mezache, Mathieu
Pudlo, Pierre
Analysis of PDEs
Applications
The pancreatic innervation undergoes dynamic remodeling during the development of pancreatic ductal adenocarcinoma (PDAC). Denervation experiments have shown that different types of axons can exert either pro- or anti-tumor effects, but conflicting results exist in the literature, leaving the overall influence of the nervous system on PDAC incompletely understood. To address this gap, we propose a continuous mathematical model of nerve-tumor interactions that allows in silico simulation of denervation at different phases of tumor development. This model takes into account the pro- or anti-tumor properties of different types of axons (sympathetic or sensory) and their distinct remodeling dynamics during PDAC development. We observe a "shift effect" where an initial pro-tumor effect of sympathetic axon denervation is later outweighed by the anti-tumor effect of sensory axon denervation, leading to a transition from an overall protective to a deleterious role of the nervous system on PDAC tumorigenesis. Our model also highlights the importance of the impact of sympathetic axon remodeling dynamics on tumor progression. These findings may guide strategies targeting the nervous system to improve PDAC treatment.
title A continuous approach of modeling tumorigenesis and axons regulation for the pancreatic cancer
topic Analysis of PDEs
Applications
url https://arxiv.org/abs/2404.02539