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Pablo Gómez-Mourelo

Researcher at Technical University of Madrid

Publications -  6
Citations -  67

Pablo Gómez-Mourelo is an academic researcher from Technical University of Madrid. The author has contributed to research in topics: Population & Linear differential equation. The author has an hindex of 5, co-authored 6 publications receiving 67 citations.

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From individual-based models to partial differential equations ☆: An application to the upstream movement of elvers

TL;DR: Two individual-based models for the movement of elvers in the French river ‘Adour’ are built and a set of stochastic differential equations and a partial differential equation for the elvers’ density are rigorously obtained.
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The differential equation counterpart of an individual-based model for yeast population growth

TL;DR: This paper deals with the utilization of both classical mathematics and computer science in the solution of problems arising in microbiology, by comparing both approaches through a relevant example, namely the evolution of a yeast population in a batch culture.
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Time scales in linear delayed differential equations

TL;DR: In this article, the authors apply and justify the aggregation of variables method for reduction of a complex system of linear delayed differential equations with two time scales: slow and fast, and demonstrate that the solution to the perturbed problem converges when e → 0 to the solution of an aggregated system whose construction is proposed.
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A model for the upstream motion of elvers in the Adour River.

TL;DR: A model is built to describe a phase of eels evolution, their migration upstream the river, and constitutes a virtual laboratory, useful to test different hypotheses about eels migration.
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A fully continuous individual-based model of tumor cell evolution

TL;DR: This work develops and study a fully continuous individual-based model (IBM) for cancer tumor invasion into a spatial environment of surrounding tissue that improves previous spatially discrete models, because it is continuous in all variables, and thus not constrained to lattice frameworks.