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PhD Position: Advanced Peptide Formulations and Functional Systems

Radboud University Faculty of Science
✓ Fully Funded ⏰ Closing Soon 🎓 Chemical Engineering 🎓 Chemistry machine learning automation peptide formulations peptide synthesis data-driven workflows functional peptides bio-based materials supramolecular chemistry

Explore advanced peptide formulation at Radboud University using automation and data science. Join pioneering efforts to design functional peptide systems for biomedical and material science applications.

AI-generated overview

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Why This Research Matters

This research will advance the understanding and application of peptide-based systems with potential to revolutionize therapeutic delivery platforms and bio-based materials. By combining experimental synthesis, automation, and data science, it promises faster, more targeted development of peptide modalities, benefiting regenerative medicine and sustainable material innovation worldwide.

Supramolecular polymers peptide materials Microbial natural products

Project Description

Project Overview

This project focuses on designing and analysing functional peptide systems using advanced peptide synthesis, automation, and data-driven workflows within Radboud University’s interdisciplinary Robotlab. Peptide-based systems offer versatile building blocks for therapeutic modalities and bio-based materials, but only a fraction of possible peptide sequences result in suitable functional properties. This research aims to navigate this vast complex space through automation and data analysis.

What You Will Do

You will explore peptide formulation and characterization, emphasizing structure–function relationships relevant to emerging therapeutics or bio-based surfactants. Utilizing automated analytical techniques and advanced peptide synthesis, you will examine how molecular design, formulation strategies, and environmental factors influence peptide bio-actives and materials. Collaboration with data science and machine learning experts will enable the development of data-driven frameworks guiding our understanding of peptide systems. Experimental validation will iteratively refine these models, paving the way for biomedical applications including delivery platforms and regenerative therapies.

Expected Outcomes

The project will produce novel insights into peptide formulation and functionalization, integrating automation and standardized data workflows for robust experimental interpretation. Results will drive frameworks for targeted peptide design, facilitating innovative biomedical technologies. You will disseminate findings through peer-reviewed publications, conferences, and workshops and contribute to bachelor’s and master’s education.

Why This Matters

Peptide systems hold promise for advancing therapeutic and bio-based material technologies, yet their complexity demands new approaches using automation and data science. This project’s outcomes may lead to transformative biomedical applications and sustainable materials with broad societal impact.

Entry Requirements

You should have a Master’s degree in chemistry, chemical engineering, molecular life sciences, or a related field. Experience in physical organic chemistry, supramolecular chemistry, systems chemistry, particularly peptide chemistry and analysis of peptide-based materials, is required. Programming skills, preferably Python, and interest or experience in machine learning or computational statistics are advantageous. Ability to work independently and within a team in an international environment is expected.

Eligibility

UK/Home
EU
International

Supervisor Profile

DM
Dr. M.F.J. Mabesoone
Radboud University, Faculty of Science

Dr. M.F.J. Mabesoone is a researcher at Radboud University’s Faculty of Science with expertise in peptide chemistry, molecular design, and automation in chemical synthesis. His work focuses on integrating advanced synthesis methods with data-driven approaches to create novel functional peptide systems. The interdisciplinary Robotlab he is affiliated with emphasizes automated and standardized workflows, positioning him at the forefront of combining experimental peptide science with computational and machine learning methodologies.

Key Publications

2014 279 citations
Ultra-responsive soft matter from strain-stiffening hydrogels
2020 270 citations
Highly efficient and tunable filtering of Electrons' spin by supramolecular chirality of nanofiber‐based materials
2020 266 citations
Solute–solvent interactions in modern physical organic chemistry: supramolecular polymers as a muse
2018 170 citations
Competing interactions in hierarchical porphyrin self-assembly introduce robustness in pathway complexity
2018 163 citations
Potential enthalpic energy of water in oils exploited to control supramolecular structure

Research Contributions

Demonstrated ultra-responsive soft matter behavior through strain-stiffening hydrogels.
Provides insights into designing responsive materials for advanced applications in soft robotics and biomedicine.
Showed tunable electron spin filtering via supramolecular chirality in nanofiber-based materials.
Enables development of novel spintronic devices for advanced electronics.
Explored solute–solvent interactions and their influence on supramolecular polymer behavior.
Advances understanding of supramolecular chemistry aiding the creation of new functional materials.
Revealed competing interactions in porphyrin self-assembly contributing to pathway robustness.
Improves control over hierarchical material assembly with implications for light-harvesting and sensing.

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