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PhD in Intelligent Matter and Synthetic Cells at Walther Lab, Mainz

Self-funded 🎓 Chemical Engineering 🎓 Chemistry 🎓 Materials Science synthetic cells hydrogels systems chemistry intelligent matter active matter dna nanoscience polymer science mechanochemistry

Explore two PhD projects developing adaptive synthetic cells and intelligent polymer materials. Join an interdisciplinary team in Mainz to innovate materials that learn and respond like living systems.

AI-generated overview

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Why This Research Matters

This research advances the design of adaptive, intelligent materials with the capability to process information and respond autonomously, which is critical for innovations in smart technologies, biomedicine, and responsive systems. The work bridges synthetic biology and materials science, potentially revolutionizing applications in soft robotics, drug delivery, and environmental sensing.

Life-Like Materials and Systems DNA Nanoscience Self-Assembly Soft Matter Mechanical Metamaterials

Project Description

Project Overview

This research focuses on developing next-generation intelligent materials and synthetic cells that can perform computation, adaptation, learning, movement, or simple decision-making processes. Two PhD projects are offered: one involves engineering DNA-based synthetic cells with enzymatic reaction circuits demonstrating emergent behaviors such as flow, propulsion, and learning-like features such as habituation and sensitisation. The other project explores novel polymer mechanochemistry by designing chemo-mechanical hydrogels that integrate geometry, mechanics, and chemical reaction networks to create materials that process information and dynamically respond to their environment.

What You Will Do

Students will conduct experimental science in systems chemistry, synthetic cells, hydrogels, DNA nanoscience, polymer materials, active matter, and mechanochemistry. They will work within a highly international, interdisciplinary team at Johannes Gutenberg University Mainz, with potential affiliation to the Max Planck Graduate Center spanning the MPI for Polymer Research and JGU Mainz. Research activities include designing and synthesizing complex materials, characterizing emergent behaviors, and exploring the interaction between chemical reaction networks and material mechanics.

Expected Outcomes

The projects aim to create synthetic cells and materials that exhibit life-like, adaptive, and intelligent molecular and material system behaviors. Expected outcomes include active synthetic cells capable of enzymatic feedback and adaptive responses as well as hydrogel-based materials that autonomously process environmental information and adjust their properties accordingly.

Why This Matters

Advances in intelligent matter hold promise for revolutionary applications in smart materials, bioengineering, responsive systems, and soft robotics. Understanding how to program materials and synthetic cells to compute and adapt could lead to breakthroughs in creating autonomous, life-like technologies that enhance human and environmental well-being.

Entry Requirements

Creative, motivated candidates with a Master’s degree in chemistry, materials science, chemical engineering, or related fields who enjoy experimental science and teamwork.

How to Apply

Apply online via https://www.walther-group.com/job-openings-phd-postdoc. Applications are evaluated on a rolling basis until positions are filled.

Eligibility

UK/Home
EU
International

Supervisor Profile

PA
Prof. Andreas Walther
Johannes Gutenberg University Mainz
24607 Citations
80 h-index
Google Scholar

Prof. Andreas Walther is a leading researcher at Johannes Gutenberg University Mainz specializing in life-like materials and systems, DNA nanoscience, soft matter, and mechanical metamaterials. He has developed advanced methods for synthesizing Janus and patchy particles and engineering biomimetic composites, earning an h-index of 80 with over 24,000 citations. His research integrates chemistry, physics, and materials science to create active, autonomous molecular systems that mimic biological functionalities.

Key Publications

2013 2223 citations
Janus particles: synthesis, self-assembly, physical properties, and applications
2008 1144 citations
Janus particles
2013 701 citations
Guided hierarchical co-assembly of soft patchy nanoparticles
2012 576 citations
Precise hierarchical self-assembly of multicompartment micelles
2010 557 citations
Large-area, lightweight and thick biomimetic composites with superior material properties via fast, economic, and green pathways

Research Contributions

Developed advanced synthesis and self-assembly methods for Janus particles and patchy nanoparticles.
This enables creation of materials with tailored physical properties and novel functionalities.
Engineered biomimetic composites and multicompartment micelles with precise hierarchical structures.
These materials provide improved performance and open new pathways for green and economic material fabrication.
Explored the design and application of life-like, adaptive molecular systems through self-assembly and DNA nanoscience.
This contributes to the development of dynamic and responsive materials in soft matter and mechanical metamaterials.

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