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PhD Positions in Multiscale Modeling and Scientific Machine Learning for Computational Biomedicine

Rowan University Department of Mathematics
✓ Fully Funded 🎓 Applied Mathematics 🎓 Biomedical Engineering machine learning blood flow high-performance computing microfluidics multiscale modeling scientific machine learning red blood cell mechanics computational biomedicine

Explore multiscale blood flow and cell mechanics through computational and machine learning models. Integrate experimental data with simulations to advance biomedical applications in blood diseases.

AI-generated overview

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Why This Research Matters

This research addresses critical challenges in understanding blood flow mechanics and disease pathology through integrated computational and experimental approaches. Advances will enhance predictive modeling for blood-related diseases, potentially improving diagnostic and therapeutic strategies within biomedical science.

Multiscale modelling Smoothed dissipative particle dynamics scientific machine learning

Project Description

Project Overview

The BioComp Group in the Department of Mathematics at Rowan University focuses on interdisciplinary research at the interface of applied mathematics, scientific machine learning, multiscale biological modeling, and computational biomedicine. This project involves multiscale modeling of blood flow and red blood cell mechanics, scientific machine learning techniques such as physics-informed neural networks and operator learning, and predictive modeling for blood-related diseases.

What You Will Do

You will develop computational models to simulate cell dynamics and blood flow, integrate microfluidic experimental data into predictive computational frameworks, and apply high-performance GPU computing and numerical simulation methods tailored for biomedical applications. The work will involve programming using Python, MATLAB, C/C++, and machine learning frameworks such as PyTorch and TensorFlow.

Expected Outcomes

The project aims to produce robust predictive models for disease-relevant blood cell behavior, innovative algorithms for scientific machine learning tailored to biological systems, and computational tools validated against experimental microfluidic data. The outcomes could impact understanding and treatment strategies for blood disorders.

Why This Matters

Modeling blood flow and cell mechanics at multiple scales with integrated experimental data can transform computational biomedicine, improving disease diagnostics and treatment. The use of scientific machine learning accelerates model development and prediction accuracy, ultimately benefiting biomedical research and healthcare.

Entry Requirements

Applicants should have a background in applied mathematics, computational science, statistics, mechanics, computer science, biomedical engineering, or related fields. Preferred qualifications include strong mathematical, computational, and programming skills; experience in numerical methods, scientific computing, machine learning, or deep learning; familiarity with Python, MATLAB, C/C++, LAMMPS, PyTorch, TensorFlow; and strong written and verbal communication skills in English.

How to Apply

Send via email: Curriculum vitae, Academic transcripts, Brief statement of research interests, Representative publications or project descriptions (if available) to Dr. Guansheng Li at guansheng_li@brown.edu or guanshengli84@gmail.com.

Eligibility

UK/Home
EU
International

Supervisor Profile

DG
Dr. Guansheng Li
Rowan University, Department of Mathematics
300 Citations
10 h-index
Google Scholar

Dr. Guansheng Li is an Assistant Professor at Rowan University joining in September 2026, with expertise in multiscale modeling, scientific machine learning, and computational biomedicine. He completed his PhD in Computational Mathematics from Jilin University in 2021 and conducted postdoctoral research at Brown University under Prof. George Karniadakis. His research is interdisciplinary, combining advanced applied mathematics with experimental and clinical collaborations.

Key Publications

2021 47 citations
Margination and adhesion dynamics of tumor cells in a real microvascular network
2020 37 citations
Parallel modeling of cell suspension flow in complex micro-networks with inflow/outflow boundary conditions
2020 36 citations
Numerical design of a highly efficient microfluidic chip for blood plasma separation
2019 35 citations
Red blood cell distribution in a microvascular network with successive bifurcations
2023 23 citations
In silico and in vitro study of the adhesion dynamics of erythrophagocytosis in sickle cell disease

Research Contributions

Studied margination and adhesion dynamics of tumor cells in microvascular networks.
Provides insight into tumor cell behavior in blood flow relevant for cancer metastasis.
Developed parallel models of cell suspension flow in complex micro-networks.
Enables efficient simulation of blood flow in microvascular networks aiding biomedical research.
Designed a highly efficient microfluidic chip for blood plasma separation.
Improves methods for blood plasma extraction useful in diagnostic and therapeutic applications.
Investigated red blood cell distribution in microvascular networks with bifurcations.
Informs understanding of microvascular hematology and blood flow heterogeneity.

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