We are pleased to introduce Ludovic Galas, head of the Normandie node, which has recently joined Euro-BioImaging as part of the French node. In this interview, Ludovic shares his background and presents the unique strengths of the Normandie node, from its state-of-the-art imaging platforms to its scientific expertises. He also reflects on the significance of integrating into the France-BioImaging and Euro-BioImaging communities and how this connection enhances visibility, fosters collaboration and provides new opportunities for users at both national and international levels.

Could you introduce yourself and your role within the Normandie node?

Attached to the Inserm Health TechnoIogies Institute, I am a cell biologist (PhD, HDR) with a research engineer position (IR HC HEB) and former international scientific experience in the Netherlands, the United States and Japan.

I am also author and co-author of more than a hundred publications in various fields due to facility activities, awarded from the French Society of Neuroendocrinology (2003) and from Inserm (Prix Innovation, 2017), co-founder of the international master program in Cell Imaging (University of Rouen Normandie, 2004), and reviewer for international journals and national « equipment » calls. I joined in 2025 the IBiSA scientific committee and the 2026 INBS roadmap working group (MESRI). 

In 2022, I was appointed as director of HeRacLeS (Inserm US 51, CNRS UAR 2026, University of Rouen Normandie) with 7 facilities or services including the cell imaging platform of Normandie so called PRIMACEN of which I am the scientific leader. I am also the head of the Normandie node of France-BioImaging managing together with Isabelle Bardou (PhD, HDR, University of Caen Normandie), applications to calls, organizing meetings and seminars of the node and finally defining the scientific and technological node signatures but also the strategies for new equipment and associated human resource profiles. I also identify needs from Normandie node users that can be found in other FBI nodes.

Which platforms and R&D teams compose your node?

At that time, the Normandie node is composed of a single platform so called PRIMACEN which offers both advanced light and electron microscopy approaches. Thanks to expertise of human resources, we propose a full workflow from living and fixed sample preparation and labelling, image acquisition and image processing and analyses.

6 complementary R&D teams are also integrated in the Normandie node including a chemobiology CNRS team (UMR 6064-Rouen, Dr Xavier Franck), 3 Inserm teams in vascular sciences (UMR 1096-Rouen, Pr Jérémy Bellien and Dr Ebba Brakenhielm ; UMR 1237-Caen, Pr Denis Vivien ; UMR 1245-Rouen, Pr Gaël Nicolas and Dr Bruno Gonzalez), an ecotoxicology INERIS team (UMR-I 02-Le Havre, Prs Céline Boulangé-Lecomte and Frank Le Foll) and a team in microalgae biosciences (UR 4358-Rouen).

Historically, PRIMACEN and R&D teams have several common publications facilitating exchanges and collaborations within the Normandie node.

Which are the main application domains of your node?

Within the Normandie node, the first main application domain is « vascular sciences » including neurovascular dysfunction in the pathophysiology of neonatal brain, physiopathology of thrombosis/ischemic neurovascular disorders, inflammatory responses in hearts and vessels, vascular anatomy, immune cell migration and blood/hemolymph tissue perfusion in marine invertebrate models.

The second main application is related to the biosynthesis and secretion of glycoproteins with a special focus on N-glycosylation in microalgae models used as cell factories for biotherapies.

Finally, two more transversal domains are the development of new fluorescent probes and the investigation of intercellular, including cell-to-cell, communication modalities.

Can you share a scientific or technical success achieved within your node?

As a recent technical success, US 51 PRIMACEN platform (Rouen) has recently published a series of papers describing the combination of FLIM, confocal microscopy and STED nanoscopy for multi-labelling experiments in living samples (Bénard M et al.: Int J Mol Sci. 2021; Life Sci Alliance, 2024; Bio Protoc. 2025). Indeed, cell-to-cell communication via tunneling nanotubes (TNTs) is a challenging topic with a growing interest. Several innovative tools that use red/near-infrared dye labeling and employ lifetime-based imaging strategies were proposed to investigate the dynamics of TNTs in a living mesothelial H28 cell.

In a recent scientific advance, UMR 1237 PhIND (Caen) recently demonstrated that during aging, central nervous system-associated macrophages (CAMs; i.e., resident immune cells located along the brain vasculature at the interface between the bloodstream and the parenchyma) become key coordinators of the neuroimmune responses following stroke. Moreover, CAMs ensure a long-term fine-tuning of the immune responses triggered by stroke (Levard et al., Nat Neurosci 2024).

What are your perspectives following your node’s integration into France-BioImaging?

Following integration of the Normandie node into France-BioImaging, Damien Schapman, Christophe Chamot and Magalie Bénard (PhD) have contributed respectively to integration working group, training mission and Africa-France joint initiative. Marc Ropitaux, Sophie Bernard and Philippe Chan are involved in the organization of CLEM working group days (Rouen, 2026). We also stimulate the internship of Rouen master’s students in other nodes including Paris-Centre (2024), Bordeaux (2025) and Toulouse (2025)… We also developed reciprocal participation of node members to PhD monitoring committee (Audrey Salles, Paris-Centre/Normandie ; Jeremy Teillon, Bordeaux/Normandie ; Ludovic Galas Normandie/Bretagne-Loire).

Among France-BioImaging nodes, we currently envision particular collaborations with Ile-de-France Sud and Bordeaux nodes.

In 2023, I benefited from a EuBi/FBI user access for FIB-SEM imaging at Imagerie-Gif. In 2024, the consortium “UR4358 (R&D Team, Dr Elodie Rivet, Rouen), Imagerie-Gif (Dr Claire Boulogne) and PRIMACEN (Dr Ludovic Galas) facilities” applied to the 2025 ANR PRC program to unravel N-glycoproteins biosynthesis and secretion in Chlamydomonas reinhardtii microalga. The project so called « Secret Story » is currently under assessment (Phase 2 ANR). Since 2023, Christophe Chamot also contributes to the Confocal microscopy training organized by Sandrine Lecart and Romain Lebars at Imagerie-Gif. Damien Schapman, Christophe Chamot and Ludovic Galas were recently invited to the OV cytology and imaging R&D team (INRAe, Versailles) to share experience in metrology and image analysis and will contribute to the next « Journées Microscopie INRAe» in November 2025.

The Normandie node has also tight collaborations with the Bordeaux node including members of the Bordeaux Imaging Center (BIC; Dr Fabrice Cordelières, Dr Christel Poujol, Jérémy Teillon, Dr Magalie Modin, Sébastien Marais, Dr Etienne Gontier, Melina Petrel and Sabrina Lacomme). Dr Magalie Bénard contributed to the STED workshop which took place in Bordeaux (2024). Dr Bruno Gonzalez benefited (Inserm UMR 1245) in 2024 from a EuBi/FBI user access for TEM imaging at BIC and a manuscript entitled « Involvement of the Endothelial N-Methyl-D-Aspartate Receptor on Vessel-Associated Positioning and Differentiation of Cortical Oligodendrocytes and on Motor Activity » is under revision in Journal of Neuroscience. Dr Etienne Gontier was invited in Rouen on June 18th 2025 to give a seminar on « 3D EM » to initiate new project on cell-cell contacts in retina and brain tissues.

If time will be sufficient, we would like to stimulate collaboration with the Alsace node (Dr Mayeul Collot, CNRS UMR 7199) as slightly initiated through a recent paper of Pfister et al. (Angew. Chem. Int. Ed. 2025, e202425276) on photoactivable fluorescent probe and Tunneling Nanotubes. We also would like to develop mechanobiology projects for vascular sciences and cell-to-cell communication.

Thanks to the FBI business developer Samy Al-Bourgol, PRIMACEN (Dr Ludovic Galas) and the Alga Biologics start-up (Pr Muriel Bardor) plan to apply next September to a “First Collaboration” call proposed by the Région Normandie in order to share knowledges and technologies. Finally, with the precious help of Caroline Thiriet (External Affairs Manager) and Marine Béraud (Communication Assistant), the Normandie Node is very enthusiastic to organize the next Annual Meeting of France-BioImaging during the second 2026 trimester.

Your node has recently joined Euro-BioImaging, what added value do you think you bring to the European community?

There are maybe two major added values the Normandie node can bring to European community. The first one is the clear opening to European and international users, whether it is collaborators or not of the R&D teams, in accordance with the strategies of the University of Rouen Normandie and the Région Normandie offering access to technological and scientific expertises. The 2024 France BioImaging call for external users led to PRIMACEN access for Dr Hamed Abbasi from the Department of Otorhinolaryngology, Head and Neck Surgery, Erasmus Medical Center, Rotterdam, The Netherlands (an interview is coming soon).

In the future, the granted open access to the new Norman imaging facility will surely:

  • Help to explore the complexity of physiological and pathological processes and possibly unravel new therapeutic targets,
  • Reinforce existing collaborations between French and international teams,
  • Increase the worldwide visibility of R&D teams/facility,
  • Increase the income of PRIMACEN through diversification of users and the associated billing process. 

Thanks to our technological and scientific signatures, we are planning to offer complementary approaches to study vascular sciences in the field of Neuro- and Cardio-vascular sciences. In particular but not exclusively, Drs Zheng and Denes (USA, Hungary) will be interested in two-photon microscopy for scientific projects related to stroke or central nervous system diseases while Dr Laguesse (Belgium) will have access to ophthalmic imaging to examine post-natal development of the retina. Our new fast intravital heart imaging (2025) is already very attractive for our Canadian (Dr Ruiz) and German (Dr Zernecke) collaborators. A paper entitled “Molecular determinants of cardiac lymphatic dysfunction in a chronic pressure-overload model” submitted by Dr Ebba Brakenhielm (U1096, Rouen, Normandie Node, France) and Dr Zernecke (Institute of Experimental Biomedicine, Würzburg, Germany) is currently under revision in EMBO Mol Med. This study revealed that loss of lymphatic valves and dysregulated lymphatic barrier may underly poor drainage capacity during pressure-overload, despite potent lymphangiogenesis and preserved lymphatic endothelial cell immune attraction. This work provides tractable targets to restore lymphatic health in cardiovascular diseases.

Our workflows for CLEM will be very helpful for functionalized nanoparticles characterization (Dr Khalin, Germany) and subcellular imaging of plant (Dr TeH, Taiwan) and microalgal (Dr Strasser, Austria; Dr Pandhal, UK  and Dr Molinaro, Italy) samples. Finally, our skills in FLIM-STED imaging will have a valuable impact to determine, in cellulo, the photophysical properties of new organic fluorescent probes developed by Dr Karuso in Australia, Dr Guieu in Portugal and Proimaging (Dr Urbain, french SME). Besides Norman users, fluorescence lifetime imaging and nanoscopy will also be very useful for user (Dr Kantati, Togo) needing multiplexing experiments and super resolution imaging. Dr Kantati will apply to the Global Imaging call namely “Imaging 4 all” for a project aiming at identifying molecules from plants used in traditional medicine including those with neuroprotective effects. 

We also want to stimulate Master student exchanges between the University of Rouen Normandie and the University of Turku/Åbo Akademi University in Finland. Amina Berredjem (IMAC, Rouen) is currently following a 6-month internship in the Viral Oncogenesis Laboratory under the supervision of Pr Sylvia Gramolelli (Åbo Akademi University, Biocity, Turku) to optimize immunocytochemical protocols while Tehreem Fatima spent 2 months on PRIMACEN (supervisors: Dr Ludovic Galas, Thomas Bance) for FIB-SEM image processing and analysis of microalgae. Such student exchanges could also be spreat out to other French nodes.

Fluorescence microscopy allows researchers to explore the living world at the cellular and subcellular scales with remarkable precision. However, as time passes, microscopes inevitably degrade: detectors become noisy, optical systems lose alignment, and image quality declines. This aging process can hinder long-term biological studies and quantitative analysis.

To address this challenge, a team of Engineers from IBDM and LIS (France-BioImaging Marseille node) developed μPIX, a new deep-learning algorithm based on generative artificial intelligence.

A smarter way to restore microscopy images

μPIX uses a specific type of AI called a Pix2Pix conditional Generative Adversarial Network (cGAN): this algorithm learns how to transform low-quality or noisy images into clean and high-quality ones, based on examples.

Figure: µPIX architecture is based on a Pix2Pix generative network. µPIX consists of two subnetworks: a generator, based on a UNet architecture with an EfficientNet-b0 backbone, and a discriminator (PatchGAN). During supervised training, a noisy image is input to the generator, which generate an image. This output is compared to the real clean image using a pixel-wise loss function (MSE). Pairs of real and generated images are then passed to the discriminator, which classifies them as real or fake using a binary cross-entropy loss (BCE). Both subnetworks are progressively refined through adversarial loss during training. In the inference phase, only the trained generator is used to generate clean images. (Bon, Gabriel, Sapède, Daniel, Matthews, Cédric and Daian, Fabrice. “μPIX: leveraging generative AI for enhanced, personalized and sustainable microscopy” Methods in Microscopy, 2025. https://doi.org/10.1515/mim-2024-0024)

Unlike conventional image processing algorithms, μPIX adapts its training to the characteristics of the microscope, making it personalized and highly precise.

It improves image quality while preserving fine structures and intensity relationships, which is essential for quantitative imaging.

Thanks to its capacities, it extends the usefulness of old equipment, offering a cost-effective and sustainable alternative to replacement.

Better results than existing tools

In their publication, the authors show that μPIX outperforms both traditional denoising methods and popular deep learning tools such as CARE or Cellpose3

It also improves downstream applications: using μPIX as a pre-processing step enhances segmentation accuracy by up to 3% compared to existing pipelines.

Reviving aging detectors

The team went one step further and applied μPIX to an ambitious task: restoring images from an outdated Multi-Alkali photodetector so they resemble those acquired with a high-performance GaAsP detector.

The results are impressive: μPIX manages to compensate for signal loss along the z-axis (represents the depth), recover structural information, and maintain a near-linear relationship between the predicted and original intensities, enabling quantitative analysis on images that would otherwise be considered obsolete.

From user-centered to hardware-centered AI

Unlike most AI tools that require users to train their own models, μPIX proposes a platform-centered paradigm: platforms train one model, tailored to their equipment, and provide it to their users. This approach reduces redundancy, improves consistency, and aligns with the principles of frugal and shared AI development.

The code and models are freely available on GitLab, and μPIX is already proving to be a useful asset for microscopy platforms seeking long-term performance with limited hardware budgets.

Read the full scientific article here: https://www.degruyterbrill.com/document/doi/10.1515/mim-2024-0024/html

Recently, Pierre Bourdoncle, head of the IMAG’IC platform at the Cochin Institute (Paris Centre Node), and his team published a new protocol for intravital imaging of calvarial bone marrow. Today, he tells us more about their research and how it can enhance the study of diseases like leukemia.

Could you tell us a little about yourself and the project?

As the head of the IMAG’IC platform at the Cochin Institute, we have consistently advanced intravital imaging through multiphoton microscopy. For the past 25 years, we have been dedicated to enhancing intravital imaging at the Cochin Institute, with a focus on improving synchronization, laser technology, and OPO (Optical Parametric Oscillator, ed.) systems.

Why is the calvarial bone marrow such an interesting model to study hematopoiesis and vascular dynamics?

The calvarial bone marrow is an interesting model for studying hematopoiesis and vascular dynamics due to its unique anatomical features. Its thin structure allows for high-resolution imaging, facilitating the observation of cellular interactions and vascular networks. Additionally, it is easily accessible, making it ideal for experimental manipulations and real-time monitoring. This model provides valuable insights into the complex processes of blood cell formation and vascular development.

z-projection of tile scan view of the calvaria vasculature labeled by cdh5-DSRED – 2-photon microscope

Your team has developed a custom-made titanium cranial implant. What advantages does it offer compared to existing methods?

The stability of the imaging area has always been a major challenge in intravital microscopy. Indeed, the animal’s breathing and temperature variations complicate long-term acquisitions. Moreover, precise repositioning of the acquisition area over several days is essential for observing the evolution of the cellular environment. The development of titanium implants, as opposed to traditional resin 3D printing, allows for more robust fixation of the system to the microscope stage and, most importantly, limits the deformation of the implant.

(A) Parts of the implant in situ: 1 observation ring, 2 cementing feature, 3 stabilizing anchor, 4 tail, 5 dovetail, 6 threaded hole, 7 Bregma. (B) Connection of the head implant to the holder: 8 fixation body, 9 clamp, 10 eccentric lever, 11 structure, 12 microscope objective.

What perspectives does this method open for the understanding of hematological diseases, such as leukemia?

This method opens significant perspectives for understanding hematological diseases like leukemia by enabling detailed visualization of disease progression and cellular interactions. It allows researchers to study the impact of treatments in real-time, enhancing the development of targeted therapies. Additionally, it facilitates the exploration of the bone marrow microenvironment’s role in disease pathogenesis.

What are your upcoming projects?

Following the same principle, we are collaborating with the company Ymetry to develop similar appendages adapted for soft organs. Our goal remains to maintain the acquisition area for as long as possible without any drift.

Click here to read the full scientific article!

We’re proud to announce the official integration of our two new cutting-edge imaging Nodes into the French Node of Euro-BioImaging: Normandie and Rhône-Alpes!

With this upgrade, the French Node now spans 10 geographical sites and provides access to 30 state-of-the-art imaging facilities, supporting both national and transnational users.

Why does this matter for the Euro-BioImaging community?

These new Nodes significantly expand the scope and excellence of the French Node:

Normandie Node (PRIMACEN – Rouen) brings unique expertise in:

  • Intravital imaging for vascular diseases, including brain and heart imaging
  • Microalgal biosciences and marine biology imaging
  • Advanced cryo-correlative microscopies (CLEM) and super-resolution imaging

Rhône-Alpes Node (LYMIC – Lyon & ISDV – Grenoble) enhances our capacity with:

  • Pioneering technologies in biomechanics and mechanobiology
  • Rare capacities in spatial transcriptomicsadaptive optics, and metabolic imaging
  • Deep expertise in large-volume 3D EM with integrated image analysis pipelines

These new capabilities fill critical technological and geographic gaps and will benefit users across Europe seeking access to next-generation imaging and expert support.

Users can expect powerful collaborations, robust training opportunities, and access to highly specialized platforms.

The Executive Board of the Rhône-Alpin Node of France-BioImaging is pleased to invite you to the event “Imaging & Microscopy Day in Rhône-Alpes – Image Analysis” – pre-program attached.

It will be held on Tuesday, July 1st at the Faculté Rockefeller, 69008 Lyon

Registration here: https://docs.google.com/forms/d/e/1FAIpQLScTyOV5tjfxZp2i4j-6OmXzdLUcHa7ByMOiJPnBMkEZZkAVBg/viewform?usp=header 


During registration, we will collect proposals for:

  • User Case Presentations (16 + 4 min questions) – Ideal for PIs and established researchers
  • Short Communications (8 + 2 min questions) – Perfect opportunity for students and early-career researchers

If you have any questions, please contact the organizers:

Jacques Brocard: jacques.brocard@ens-lyon.fr
Olivier Destaing: olivier.destaing@univ-grenoble-alpes.fr
Xavier Jaurand: xavier.jaurand@univ-lyon1.fr

As the number of seats is limited, please register as soon as possible to best organize the final program!

We organize in Pasteur a training school on bioimage analysis at the Institut Pasteur, Paris, in May 2025.

The school will be in person only, from the 12th to the 16th of May 2025. All the details are on the course page, some details below.

The course lasts one week and is made of 2 tracks that run in parallel:

  • Early career investigators track (ECI): Learn to master the tools and techniques of bioimage analysis for your own research. From power usage to building analysis pipelines.
  • Analysts track: Learn to use and deploy advanced tools; learn to master high-performance computing for advanced bioimage analysis.

The number of available seats is 25 students max for the ECI track and 15 for the Analysts track. The selection is based on project description.

The keynotes are common to both tracks, and there is a bonus session on Friday afternoon: Work on your own data, with the help of colleagues and experts.

Program

The exact schedule is still being finalized. Here is a description of the course content.

Both tracks of the course have a specific focus on hands-on and interactive tutorials. They are meant to be convivial and foster a collaborative atmosphere between students and teachers. Each day begin with a common keynote, then the program for each track takes place.

Early-career investigator track

In this course you will learn how to use the most recent and common image analysis software tools. You will learn to master and use them for your own research project. The course will walk you from their installation, basic usage to building image analysis pipelines, from raw images to quantification results.

In the beginning we will explore the usage of software such as Fiji, Icy, QuPath, Ilastik, TrackMate, and Deep Learning tools… By the end of the course you will able to use and edit scripts and notebooks for batch processing and some advanced analysis.

The course will also offer fundamental introductions to the topics in modern image analysis, including machine learning / deep learning, ethics, …

You should apply to this course if you are a biologist and / or have no or little background in image analysis and do imaging in your research project. No knowledge of coding is required.

Analyst track

The strong focus of this track is the use of advanced algorithms, and mastering new tools and techniques. For every edition of this course, we pick a central topic in image analysis that we use to articulate the lectures and practical sessions of this track.

This year this topic is image analysis in the scope of spatially-resolved omics. Spatial-omics is a term used to describe a wide range of technologies focused on studying the molecular composition and interactions within tissues or cells while maintaining their spatial context. They all involve imaging and image analysis. We will use spatial omics as a theme to articulate several lectures and practical sessions on advanced image analysis topics that are central to these technologies. Importantly: we will restrict the topics to be on image analysis only, and won’t be dealing with the bioinformatics part. However, guest lectures by experts will help contextualize the course content within the broader scope of spatial omics.

In addition, the course will also focus on the use of artificial intelligence for bioimage analysis, using computational pathology and cell biology as topics to articulate the sessions and lectures.

Finally, a session will be dedicated to high performance computing in bioimage analysis, in the context of large images and large datasets.

The main tools of this track will be Python, Napari and Icy.

Basic experience with scripting and python is required.

Requirements

Bring your own laptop. We will spend time together installing everything needed and making sure they run for the course.

Also, absolutely bring a mouse with the laptop :) It’s painful to use the tools mentioned above with the trackpad.

Participants are encouraged to bring image data for the ‘Work on your own data’ sessions.

Registration

For registration visit the course webpage here : https://www.pasteur.fr/en/education/programs-and-courses/pasteur-courses?id_cours=32420

Deadline for registration: March the 31st 2025

Date for acceptance / rejection communication: April the 3rd 2025

Fresnel Institute, in collaboration with Imaris Software, is organizing the Imaris Workshop Day on Tuesday, March 11th.

This event includes a general presentation on Imaris, during which an Imaris expert will showcase various examples of its applications. Following the presentation, there will be an image analysis clinic where you can discuss the analysis of your own data*.

Workshop program:

  • 13:30-14:30: Imaris presentation
  • 15:00-17:30: Image analysis clinic

Location: Salle Pierre Cotton, Institut Fresnel, Faculté des Sciences – 52 Avenue Escadrille Normandie-Niémen, 13397 Marseille.

Registration is free of charge but mandatory. You can register here or click on the file below.

*If your data isn’t ready by then, we’ll find a similar dataset to discuss.

Gustave Roussy Microscopy Facility, in collaboration with Imaris Software, is organizing the Imaris Workshop Day on Friday, February 14th.

This event includes a general presentation on Imaris, during which an Imaris expert will showcase various examples of its applications. Following the presentation, there will be an image analysis clinic where you can discuss the analysis of your own data*.

Workshop program:

  • 11:00-12:00: Imaris presentation
  • 13:00-16:00: Image analysis clinic

Location: Salle 2, Espace Maurice Tubiana, 20 Rue du Dr Pinel, 94805, Villejuif.

Registration is free of charge but mandatory. You can register here or click on the file below.

*If your data isn’t ready by then, we’ll find a similar dataset to discuss.

L’institut CIML (Centre d’Immunologie de Marseille Luminy), membre du nœud marseillais de France-BioImaging, organise en mars 2025 une formation dédié à la microscopie confocale spectrale.

L’objectif de cette formation, ouverte aux ingénieurs et chercheurs utilisant la microscopie confocale, est d’acquérir en mode spectral un panel 10 couleurs sur coupe de tissu et analyser les images réalisées.

Pour vous inscrire, vous devez préalablement remplir le questionnaire disponible ici: https://france-bioimaging.org/wp-content/uploads/2024/12/Questionnaire_Formation-microscopie-confocale-spectrale-mars-2025.pdf

Retrouvez le programme de la formation ci-dessous:

Vous avez jusqu’au 27 janvier 2025 pour vous inscrire et retourner le questionnaire complété!

Contact:

Hélène Pastor: Chargée de formation et du développement des ressources humaines – Inserm
demat-form.dr-marseille@inserm.fr

Inscription (aucune demande ne sera prise en compte sans le questionnaire):

  • Personnels Inserm ou non Inserm dans une structure mixte Inserm : inscription via www.sirene.inserm.fr + envoi du questionnaire à : demat-form.dr-marseille@inserm.fr (Région : Paca – Domaine : TS3 – Imagerie)
  • Autres personnels : formulaire d’inscription + questionnaire à transmettre à demat-form.dr-marseille@inserm.fr

From February 6 to 7, 2025, the University of Rouen Normandie will host the 8th edition of the France Cerebellum Club Days. This year’s event will include a session dedicated to cerebellum bioimaging, highlighted by the Primacen imaging platform, a member of the Normandie Node of France-BioImaging.

The France Cerebellum Club is an organization aimed at promoting exchanges between scientists involved in the study of the cerebellum in all its modalities, using a variety of analysis methods.

This new edition will bring together researchers and industrials to discuss the latest advances in the study of the cerebellum. On the program: plenary lectures, thematic sessions and workshops highlighting recent work on the development, functions and pathologies associated with this cerebral region. This year’s topics include the development and evolution of the cerebellum, innovations in applied bioimaging, organoid models and studies of connections between the cerebellum and other brain regions.

Two keynotes will surround these scientific days. Mari Sepp (Heidelberg, Germany) will present her work on the development and evolution of the cerebellum using single-cell genomics, while Christian Hansel (Chicago, USA) will discuss cerebellar instructive signals and their role in neocortical plasticity.

For more information and registration details, click here.

Le 3 décembre dernier, le Nœud Paris-Centre, membre de l’infrastructure France-BioImaging a organisé une journée intitulée placée sous le signe de la valorisation scientifique et du transfert de technologie. Accessible en mode hybride, elle a réuni une dizaine d’intervenants et une quarantaine d’auditeurs.

L’objectif de cette journée était de rendre accessible la valorisation de l’activité de recherche au plus grand nombre de chercheurs, étudiants, et acteurs du transfert technologique. À cette fin, les participants ont pu bénéficié d’une série de témoignages de chercheurs, de directeurs de startups (ABBELIGHT AVATAR MEDICAL, TWINCKLE FACTORY, INSCOPER) de responsables d’entreprises, et d’acteurs des services de valorisation qui ont converti un résultat scientifique dans le domaine de l’imagerie biologique en un produit ou un service commercialisé.

Ces témoignages ont permis aux intervenants de faire part de leur motivation et leur parcours de transfert technologique avec ses difficultés et ses satisfactions. Les directeurs de startups et responsables d’entreprises ont également présenté aux participants les temps clés de la valorisation d’une découverte scientifique, tels que les échanges entre industriels-chercheurs et la mise en place de la valorisation économique du travail scientifique initial.

Pour clore cette journée, une la table ronde finale a permis aux acteurs des services de valorisation de décrire la fonction, les moyens, ainsi que les modalités d’interaction avec les chercheurs et d’accompagnement du transfert technologique.

Restez connectés, les certaines sessions seront bientôt disponibles en replay!

On September 6, the Cellular Imaging Master, created in 2004 by Delphine Burel and Ludovic Galas at the University of Rouen Normandie, celebrated its 20th anniversary in partnership with the IBiSA PRIMACEN imaging facility.

Over 50 alumni attended the event, along with the Master’s coordinators and several teaching staff members. The day began with a review of the program’s 20 years and a presentation on international collaborations with the Universities of Turku and Abo Academy in Finland, followed by a vote for the new Master’s logo!

In the afternoon, participants enjoyed fun activities such as karting, bowling, and karaoke at Espace Loisirs Rouen, fostering a convivial atmosphere among students and teachers. Everyone agreed to meet again in five years for future celebrations.

This successful anniversary was made possible thanks to the efforts of the M2 IMAC 2024 class and the support of their sponsors!

Find out more about the IMAC Master’s program here.