European Synthetic Cell Initiative

@syncelleu.bsky.social

Network of excellent European research institutions that have joined forces to collaborate on synthetic cell research and accelerate its translation into technology

2 postdoctoral opportunities within the Huck Group -Netherlands They are part of the European PROPEL consortium, which aims to develop an "integrated, cost-efficient, and scalable pipeline for the production of protein-based materials and biocatalysts using synthetic cells" More info: edu.nl/bwabr

PROPEL: Protein production in fully sustainable syncells for biomaterials manufacturing and waste upcycling - IMDEA ENERGÍA | Wilhelm Huck

***Job alert: vacancies for two postdoctoral researchers*** These positions are part of a European consortium PROPEL which aims to revolutionize sustainable bio-manufacturing through the creation of t...

edu.nl

Scientific publication The authors present a minimal platform that can reproduce the key features of biological morphogenesis through reversible shape morphing and topology transitions This system involves only oil droplets immersed in a solvent and an amphiphilic triblock copolymer edu.nl/kgcnc

Morphogenic colloids - Nature Communications

Morphogenesis is a dynamic process central to life, in which structure and compartmentalization arise to produce functional architectures but replicating such transformations synthetically remains cha...

edu.nl

Career opportunity in Germany SynthImmune, together with the Center for Molecular Biology of Heidelberg University (ZMBH) and the Faculty of Biosciences are looking for a Junior Group‑Leader to head a new research group in Bottom‑Up Synthetic Biology. edu.nl/jkkay #SynCell #SyntheticCell

Junior Research Group Leader in “Bottom-Up Synthetic Biology” (f/m/d) - SynthImmune

The Cluster of Excellence SynthImmune, the Center for Molecular Biology of Heidelberg University (ZMBH), and the Faculty of Biosciences invite applications

edu.nl

New scientific publication in PNAS: "Improving cell-free metabolism through direct integration of artificial respiratory chains" The researchers built tailored artificial respiratory chains from the bottom up, designed to mimic and enhance the properties of cellular respiration. edu.nl/dww3x

PNAS

Proceedings of the National Academy of Sciences (PNAS), a peer reviewed journal of the National Academy of Sciences (NAS) - an authoritative source of high-impact, original research that broadly spans...

edu.nl

Job opportunity: Postdoctoral positions in Biomaterials, Synthetic Biology, and Mammalian Cell Engineering Tan Lab, University of California, Davis, USA The project aims to create new ways to control, preserve, and engineer mammalian cell function using engineered biomaterials. edu.nl/fvpnh

Job Opportunity: Postdoctoral Scholars in Biomaterials, Synthetic Biology, and Mammalian Cell Engineering

This position sits at the boundary of biomaterials, synthetic biology, and cell-based therapeutics. The work is fast-moving, and scholars will have access to a large translational team, industry-facin...

edu.nl

👏👏👏Congratulations to SFB 1551 group leaders Edward Lemke @lemkelab.bsky.social and Andreas Walther @waltherlab.bsky.social at Johannes Gutenberg University Mainz (JGU) @unimainz.bsky.social @imbmainz.bsky.social on being awarded prestigious European Research Council (ERC) Advanced Grants.

Johannes Gutenberg-Universität Mainz@unimainz.bsky.social · 2mo ago

#ERCAdG für zwei Forschende der #UniMainz: Biophysiker Edward Lemke und Chemiker Andreas Walther erhalten Förderung in Millionenhöhe von der EU 👉 presse.uni-mainz.de/erc-advanced-… #ERCAdvancedGrant #Biophysik #Biomaterialien @imbmainz.bsky.social #ERC @erc.europa.eu @waltherlab.bsky.social

Auf der linken Seite des Bildes ist Prof. Dr. Edward Lemke zu sehen. Er ist Professor für Synthetische Biophysik an der Uni Mainz. (Foto/©: Thomas Hartmann / IMB)
Auf der rechten Seite ist Prof. Dr. Andreas Walther abgebildet. Er ist Professor für Makromolekulare Materialien und Systeme an der Uni Mainz. (© Andreas Walther)

Publication Energy regeneration in CFPS systems is challenging. The article shows that phosphoserine is a promising energy source for E. coli lysate-based CFPS systems. It also validated the use of these optimised CFPS compositions within bilayer lipid vesicles edu.nl/3qjde #SyntheticCell #SynCell

Phosphoserine as an Alternative Energy Source for E. coli Cell-Free Protein Synthesis with Increased Yield and Prolonged Activity

Energy-supplying molecules are essential for biological processes, particularly for transcription and translation. Cell-free protein synthesis (CFPS) systems are powerful tools for in vitro protein production, offering flexibility for applications ranging from high-throughput protein screening to therapeutic protein production. However, energy regeneration in CFPS remains a key challenge, particularly for large-scale or resource-constrained settings. In this study, we introduce phosphoserine (PS) as a simple, cost-effective alternative secondary energy source, capable of partially or fully replacing 3-phosphoglycerate (PGA), the commonly used energy donor in E. coli lysate-based CFPS, whose availability is often limited. By supplementing CFPS reactions with PS, we demonstrate significant improvements in protein yield and cost-efficiency, achieving a 2-fold increase in protein production. Importantly, PS enhancement is maintained across lysate batches and protein targets. Furthermore, we offer affordable CFPS compositions that retain protein synthesis, making the system more accessible for resource-limited settings. Additionally, we show that higher PS concentrations, while reducing final protein yield, extend the reaction duration by more than 2-fold. Therefore, the incorporation of PS as an alternative energy donor enables a tunable modality for balancing protein yield, reaction longevity, and cost. Our data support a model in which PS enhances CFPS via the serine biosynthesis pathway by modulating flux between serine production and glycolysis to support ATP regeneration. Lastly, we validate the use of these optimized CFPS compositions within synthetic cells (SCs). This study establishes PS as a promising energy source for E. coli lysate-based CFPS systems, paving the way for enhanced and economical protein synthesis platforms tailored to diverse clinical, biotechnological, and industrial needs.

edu.nl

Last week was incredibly busy and exciting. We had the pleasure of receiving a visit from MEP @bartgroothuis.bsky.social at Delft University of Technology in the Netherlands, and of meeting Commissioner Ekaterina Zaharieva, during her visit to Leiden University in the Netherlands edu.nl/3t3hv

SynCellEU Meets MEP Groothuis and Commissioner Zaharieva

During these encounters, the initiative advocated for a funding instrument capable of accelerating synthetic cell research and technologies.

edu.nl