Genetically engineered mouse models
Gain access to our expertise to engineer unique « à la carte » transgenic mouse models.
Mouse Model – B-cell Lymphoma
Gain access to our engineered mouse models, including CD19-Cre transgenic strain (allowing conditional engineering in B cells), BCL2tracer strain (mimicking sporadic t(14;18) translocation), AID-Cre-ERT2 KI/KO strain (used to monitor memory B cell population), RosaYFP Reporter strain, MLL4 f/F strain, Cas9-GFP Cre strain, and BCL2/KDMT2D knock-out strain (either as a syngenic chimera model or xenograft), and […]
ECCITE-seq
ECCITE-seq combines CRISPR perturbations, RNA sequencing, and protein detection at the single-cell level, enabling integrated analysis of transcriptome, genome, and proteome. This technique provides deep insights into cellular states and regulatory networks, serving as a powerful tool for CRISPR screens, functional genomics, and precision medicine research.
Immunoglobulin repertoire sequencing (Ig-Rep-Seq)
Immunoglobulin Repertoire Sequencing (Ig-Rep-Seq) deciphers the antibody diversity and immune responseat the single-cell level. This method can be used to study lymphoid malignancies, track immune responses, and guide cancer immunotherapy development.
Multiplex Immunohistochemistry
Multiplex Immunohistochemistry (IHC) enables the simultaneous detection of multiple proteins within a single tissue sample, revealing cellular architecture and interactions. In oncology, it provides critical insights into tumor composition, microenvironment, and potential therapeutic targets.
In vitro modelisation – Memory B cells to plasma cell differentiation
Explore our in vitro model enabling the isolation of memory B cells from blood donors and their differentiation into plasma cells. This system supports the study of protein function through gene expression modulation or drug treatment and is extensively characterized at a molecular and epigenetic levels.
Mouse Model
Explore our available mouse models (drug resistant, immuno-competent, or immuno-deficient strains) to investigate lymphoma biology and identify novel drug targets.
Genome Integrity Analysis: Replication and DNA Damage Detection
Our expertise include DNA combing, detection of cytosolic DNA and detection of DNA damage foci, enabling detailed study of DNA replication and genome stability. Allowing quantification of replication stress, fork resection, and DNA damage at both single-molecule and cellular levels, they help uncover mechanisms of cancer progression, inflammation, and potential therapeutic targets.
3D bioprinting
3D Bioprinting allows the precise creation of complex tissue-like structures using cells and biomaterials. In oncology, it enables modeling of the tumor microenvironment to study cancer mechanisms and test new therapies.
Hi-C
By detecting physical interactions between distant DNA segments, Hi-C offers insights into the spatial structure and folding of chromatin. Hi-C serves as a powerful tool for deciphering the principles governing chromatin organization, from the formation of topologically associating domains (TADs) to the spatial compartmentalization of regulatory elements and gene expression domains.