Advanced Flow Cytometry
Our platform combines multiparameter and spectral flow cytometry with FACS to analyze and isolate diverse cell populations, enabling high-resolution study of cellular heterogeneity and function in biomedical research.
Advanced Microscopy for Molecular Localization and Interaction
Our state-of-the-art microscopy techniques includes spectral confocal microscopy, microscopic nuclear localization, Fluorescence Resonance Energy Transfer (FRET) microscopy imaging, and cell imaging. Based-on high-resolution visualization of molecular events, we investigate cellular processes and structures, along with precise assessment of distances between Ig genes and oncogenes, unveiling new insights into gene regulation and oncogenic mechanisms.
ATAC-seq (bulk and single-cell)
ATAC-seq maps chromatin accessibility to reveal gene regulatory regions, both at bulk and single-cell resolution. Bulk ATAC-seq provides genome-wide snapshots of open chromatin across cell populations, while single-cell ATAC-seq uncovers cell-to-cell variability in chromatin states. This technique enables deeper understanding of gene regulation, cellular differentiation, and disease mechanisms, offering valuable insights for cancer research and […]
Exome-seq
Based on our Exome-seq technology, which sequences all protein-coding regions, we provide detailed genetic profiling of patient cell to uncover disease mechanisms and potential therapeutic targets in lymphoid neoplasms.
Mapping the Epigenetic Landscape: ChIP-seq, CUT&Run, and CUT&Tag
Our epigenetics methodologies, including Chromatin Immunoprecipitation (ChIP-seq), CUT&Run and CUT&Tag, provide new insights into the regulatory mechanisms governing gene expression and chromatin structure. It allows researchers to dissect complex regulatory networks, identify novel transcriptional regulatory elements, and uncover the molecular basis of diseases.
Precision Gene Modulation with Antisense Oligonucleotides (ASOs)
Our advanced Antisense Oligonucleotides (ASOs) design technologys offer a versatile approach for precisely manipulating gene expression, including the potent capability of exon skipping to modulate protein production, such as Ig genes or BCR, by targeting donor splice sites. This method is compatible with both cell lines and primary cells, offering flexibility and applicability across various […]
DNA methylation – ERRBS
Enhanced Reduced Representation Bisulfite Sequencing (ERRBS) maps DNA methylation at single-nucleotide resolution to study epigenetic regulation. It helps reveal cancer-associated epigenetic changes and identify potential biomarkers and therapeutic targets.
Epitranscriptomics
Our epitranscriptomics pipeline uses LC-MS/MS to detect and quantify RNA modifications, providing insights into RNA regulation. We use this innovative platform to unravel the intricacies of epitranscriptomic modifications during critical cellular processes such as B to plasma cell differentiation, lymphomagenesis, and myelomagenesis. It helps to shed light on the underlying molecular pathways driving disease progression […]
DNA-RNA immunoprecipitation sequencing (DRIP-seq)
DRIP-seq maps DNA-RNA hybrids (R-loops) across the genome to study their roles in gene regulation and genome stability. It helps reveal mechanisms of transcription, DNA repair, and chromatin organization, providing insights relevant to disease and potential therapeutic strategies.
Okazaki fragments sequencing (OK-seq)
OK-seq enables researchers to map the genome-wide locations of proteins involved in DNA replication and replication fork directionality. By unraveling the spatial organization of replication machinery and Okazaki fragments, OK-seq offers insights into the coordination and regulation of DNA synthesis during genome replication. This approach provides information for understanding genome stability and cellular proliferation.