Postdoctoral researcher at the at the Pluripotency for organ regeneration Research Group
Ref: PD-EG // Deadline: 01/09/2025
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NET-RARE. Workshop 3: Identification of Biomarkers and Diagnostic Models for Rare Diseases
NET-RARE third workshop third workshop focuses on the latest technologies for identifying new biomarkers to enable early detection and better characterization of rare diseases. It also aims to explore strategies for … Read more
Fibrosens Project receives funds from AFM-Telethon to develop sensor devices for muscular dystrophy
IBEC researcher Juanma Fernández recently has received funding from the French AFM-Telethon to carry out the project “Monitoring of fibrotic processes in 3D skeletal muscle co-cultures for Muscular Dystrophies using plasmonic biosensors”. The objective is to develop multiplexing sensor devices to achieve online, real-time sensing capability to monitor fibrosis markers and evaluate drug response in muscular dystrophy in vitro models.
Research Training at the Integrative Cell and Tissue Dynamics Research Group
Ref: RT_XT // Deadline: 15/08/2025
Postdoctoral position at the Research Group Microenvironments for Medicine
Ref: PD1-MS // Deadline: 10/09/2025
Researcher Training position at the Biosensors for Bioengineering Research Group
Ref: RT_JR // Deadline: 15/08/2025
Predoctoral researcher on Metabolic Imaging for Advanced Diagnostics at the Molecular Imaging for Precision Medicine Research Group
Ref: PHD-IM2 // Deadline: 05/10/2025
Research Integrity
The IBEC Code of Conduct for Research Integrity (the Code) is one of the actions within the framework of the Human Resources Strategy for Researchers (HRS4R) according to the European … Read more
Scientists create an artificial cell capable of navigating its environment using chemistry alone
Researchers at the Institute for Bioengineering of Catalonia (IBEC) have created the world’s simplest artificial cell capable of chemical navigation, migrating toward specific substances like living cells do. This breakthrough, published in Science Advances, demonstrates how microscopic bubbles, called vesicles, can be programmed to follow chemical trails. This breakthrough reveals the bare essentials needed to make synthetic life move with purpose. Decoding how vesicles navigate reveals how cells communicate and transport cargo, and provides a blueprint for engineering targeted drug delivery systems