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.
3D bioprinting facility
miRNA profiling
miRNA Profiling quantifies and characterizes microRNA expression to study their role in regulating gene expression. It helps identify biomarkers and potential therapeutic targets for cancer treatment.
Reverse Transcriptase Multiplex Ligation-dependant Probe Amplification (RT-MLPA)
RT-MLPA enables simultaneous detection and quantification of multiple RNA targets with high accuracy. In oncology, it is used to analyze gene expression signatures, identify biomarkers, and study disease mechanisms.
Cell-free DNA (cfDNA) analysis
Cell-free DNA (cfDNA) analysis detects genetic mutations from DNA fragments circulating in blood or urine, offering a non-invasive alternative to tissue biopsies. In oncology, it is widely used to identify tumor mutations, monitor treatment response, and track disease progression.
Proximity Ligation Assay (PLA)
Proximity Ligation Assay (PLA) enables precise detection and visualization of protein-protein interactions directly within cells. In oncology, it helps uncover signaling pathways, validate therapeutic targets, and reveal mechanisms driving cancer progression.
Metabolic analysis and characterization
Our metabolic analysis platform uses advanced techniques—from isotope tracing to LC-MS profiling—to reveal key aspects of cellular energetics and metabolite use. In oncology, it helps characterize tumor metabolism, uncover vulnerabilities, and guide therapeutic strategies.
Mouse Model – Eµ-myc
We provide Eµ-myc mouse model for non-Hodgkin B cell lymphoma study, characterized for response to chemotherapies and to metabolic inhibitors, metabolomic (carbon tracing), and transcriptomic.
In vitro modelisation – Naïve B cells to plasma cell differentiation
We offer an in vitro model of B-cell terminal differentiation, based on the isolation and activation of donor-derived B-cells. This system allows functional studies of specific proteins through gene expression modulation with antisense technology and is fully characterized by immunoglobulin isoform analysis.