🎓 Discover PhD and Master's programmes at leading universities worldwide — Sign up free to save searches and get email alerts
TRI

Mechano-immunomodulatory Strategies for Bone Fracture Repair

Trinity College Dublin School of Engineering
✓ Fully Funded ⏰ Closing Soon 🎓 Biomedical Engineering 🎓 Mechanical Engineering gpcr bone fracture repair mechano-immunomodulation macrophage mechanotransduction extracellular vesicles biomaterials engineering immune cell culture bioreactor systems

Explore how mechanical forces control immune cell behavior to innovate therapies for bone fracture healing. Join Trinity College Dublin's Hoey Lab for a multidisciplinary PhD integrating biomechanics, immunology, and biomaterials science.

AI-generated overview

🌍
Why This Research Matters

This research addresses the critical unmet need for improved treatments of osteoporosis-related fractures that currently result in high morbidity and economic costs. By elucidating the mechanobiological control of immune responses during bone healing, the project aims to develop therapies that accelerate recovery and reduce complications. The outcomes could transform clinical approaches to fracture repair and improve patients' quality of life globally.

Bone Mechanobiology Mechano-immunology Cilia Extracellular vesicles Organ-on-a-Chip

Project Description

Project Overview

This PhD project focuses on mechano-immunomodulatory strategies to enhance bone fracture repair, addressing the growing health challenge posed by osteoporosis-related fractures. By exploring how mechanical forces modulate the immune response, particularly macrophage phenotype and function, it aims to uncover novel mechanisms underpinning effective bone healing.

What You Will Do

The research involves two complementary PhD positions within the Hoey Lab. Position one explores macrophage mechanotransduction via mechanosensitive ion channels and G-protein-coupled receptors (GPCRs). Position two investigates macrophage mechanosignalling mediated by extracellular vesicles. Students will utilize advanced immune cell culture, bioreactor systems, extracellular vesicle analysis, and biomaterials engineering techniques.

Expected Outcomes

The project seeks to develop mechano-immunomodulatory materials designed to improve clinical bone repair by actively modulating the immune environment. Outcomes will deepen understanding of bone regeneration mechanisms and foster the creation of next-generation biomaterials that enhance the healing process.

Why This Matters

Osteoporosis-related fractures impose significant morbidity, mortality, and economic burdens. Current treatments often fail to address inflammation-driven impaired healing. This multidisciplinary research has the potential to revolutionize fracture treatment through innovative strategies that integrate biomechanics and immunology, ultimately improving patient recovery and reducing healthcare costs.

Entry Requirements

Strong academic background in biomedical engineering, mechanical engineering, biomedical sciences, immunology, or related disciplines. Experience in immune cell culture, bioreactor operation, extracellular vesicle analysis, or biomaterials research is advantageous. Excellent communication skills and a motivation for interdisciplinary research are essential.

Eligibility

UK/Home
EU
International

Supervisor Profile

DD
Dr. David A. Hoey
Trinity College Dublin, School of Engineering
1800 Citations
25 h-index
Google Scholar

Dr. David A. Hoey leads pioneering research at the intersection of biomechanics, immunology, and regenerative medicine in the School of Engineering at Trinity College Dublin. His lab focuses on understanding how mechanical forces influence cellular function, particularly immune cells like macrophages, to drive tissue repair. He is internationally recognized for applying interdisciplinary approaches combining engineering and life sciences to advance bone regeneration strategies.

Key Publications

2012 207 citations
Primary cilia-mediated mechanotransduction in human mesenchymal stem cells
2012 159 citations
The mechanics of the primary cilium: an intricate structure with complex function
2018 154 citations
Mediating human stem cell behaviour via defined fibrous architectures by melt electrospinning writing
2018 151 citations
TRPV4-mediates oscillatory fluid shear mechanotransduction in mesenchymal stem cells in part via the primary cilium
2011 148 citations
A role for the primary cilium in paracrine signaling between mechanically stimulated osteocytes and mesenchymal stem cells

Research Contributions

Primary cilia play a critical role in mechanotransduction in human mesenchymal stem cells.
This discovery advances understanding of how mechanical signals influence stem cell behavior, informing tissue engineering and regenerative medicine.
The structural mechanics of the primary cilium are intricate and essential for its complex functions.
Insights into cilium mechanics enhance knowledge of cellular sensing mechanisms, with implications for bone biology and related diseases.
Defined fibrous architectures created by melt electrospinning writing can mediate human stem cell behavior.
This enables precise engineering of scaffolds for improved stem cell-based tissue repair strategies.
Mechanotransduction via TRPV4 channels partly operating through the primary cilium regulates mesenchymal stem cells under oscillatory fluid shear.
Understanding this pathway highlights novel targets for modulating stem cell fate under mechanical stimuli.

Related Opportunities

PhD Research on Advanced Infrastructure Materials and Cementitious Mixtures
University of Miami Ali Ghahremaninezhad 🎓 Civil Engineering 🎓 Materials Science

Explore the advanced mechanical and durability properties of cementitious materials modified with innovative additives. Investigate failure mechanisms in metals and contribute to sustainable infrastructure material deve…

This research enhances the sustainability and performance of construction materials critical to infrastructure longevity. Innovations in ce…

Infrastructure Materials
PhD on Materials, Manufacturing, and Recycling of Electrochemical Energy Storage Systems
University of Oklahoma Dr. Manoj Jangid 🎓 Chemical Engineering 🎓 Materials Science

Explore the science of next-generation batteries focusing on materials and recycling techniques. Investigate coatings and stress dynamics to boost battery durability and efficiency in real applications.

This research is critical for developing longer-lasting, safer, and more sustainable batteries essential for electric vehicles and renewabl…

1050+ citations · h20
Electrochemistry Materials Engineering Coating Interfaces Li-ion Batteries
PhD Positions in Multiscale Modeling and Scientific Machine Learning for Computational Biomedicine
Rowan University Dr. Guansheng Li 🎓 Applied Mathematics 🎓 Biomedical Engineering

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.

This research addresses critical challenges in understanding blood flow mechanics and disease pathology through integrated computational an…

300+ citations · h10
Multiscale modelling Smoothed dissipative particle dynamics scientific machine learning
PhD Research on Advanced Materials for Energy, Aerospace, Space, and Nuclear Applications
The University of Texas at El Paso Dr. Md Ariful Ahsan 🎓 Chemistry 🎓 Materials Science

Explore AI and physics-based methods to predict and design materials for extreme environments. Conduct experimental and computational research on material failure, additive manufacturing, and electrochemical techniques …

This research addresses critical challenges in developing durable materials for extreme aerospace, space, and nuclear environments. It also…

2907+ citations · h30
Advanced Materials