Dietmar Oelz

Senior Lecturer

University of Queensland

Australia

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Dietmar Oelz is a Senior Lecturer at The University of Queensland, Australia. His research focuses on mathematical modeling and simulations in cellular biology, particularly involving cell migration, axonal transport, and mechanochemical patterning. Recent publications include work on Physics Informed Neural Networks and studies of collective cell migration dynamics.

Articles (15)

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2025

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2025

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2025

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2024

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2023

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2022

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2022

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2021

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2021

Collaborators (7)

Nikolas Haass

Professorial Research Fellow/Professor for Cutaneous Oncology

University of Queensland

AUSTRALIA

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Frédéric A Meunier

AUSTRALIA

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Charisios Tsiairis

Friedrich Miescher Institute for Biomedical Research

SWITZERLAND

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Nizhum Rahman

University of Michigan

UNITED STATES

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Kevin Dean

Assistant Professor

University of Texas Southwestern Medical Center

UNITED STATES

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Max Nobis

Head

UCL Cancer Institute

BELGIUM

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Alexander Tam

University of South Australia

AUSTRALIA

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Dietmar Oelz

Research Interests

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Articles (15)

Mechanochemical Patterning Localizes the Organizer of a Luminal Epithelium

Simulation of a Free Boundary Cell Migration Model through Physics Informed Neural Networks

Two-lane track geometry facilitates coordination of collective cell migration

Stretch-induced recruitment of myosin into transversal actin rings stabilises axonal large cargo transport

Compression-dependent microtubule reinforcement enables cells to navigate confined environments

A mathematical model for axonal transport of large cargo vesicles

A New Perspective for Scientific Modelling: Sparse Reconstruction-Based Approach for Learning Time-Space Fractional Differential Equations

Asymptotic limits of transient patterns in a continuous-space interacting particle system

Author Correction: Super-resolved trajectory-derived nanoclustering analysis using spatiotemporal indexing

Super-resolved trajectory-derived nanoclustering analysis using spatiotemporal indexing

F-actin bending facilitates net actomyosin contraction By inhibiting expansion with plus-end-located myosin motors

Classification and stability analysis of polarising and depolarising travelling wave solutions for a model of collective cell migration

Spatial redistribution of neurosecretory vesicles upon stimulation accelerates their directed transport to the plasma membrane

Protein friction and filament bending facilitate contraction of disordered actomyosin networks

Quasi-steady-state reduction of a model for cytoplasmic transport of secretory vesicles in stimulated chromaffin cells

Collaborators (7)

Nikolas Haass

Frédéric A Meunier

Charisios Tsiairis

Nizhum Rahman

Kevin Dean

Max Nobis

Alexander Tam

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