EMEA | Fall 2025 Edition

Welcome to The Readout! Each quarter, we’ll share a selection of highlights, updates, and resources for pharma and biotech innovators. Let’s jump right in — and happy reading.


New approaches to high-throughput single cell multiomic CRISPR screening

For decades, the complexity and heterogeneity of cancer cells have been a relentless challenge, obscuring the most effective drug targets within a fog of bulk data. In this blog article we highlight a pivotal moment: the advent of large-scale, multiomic single-cell CRISPR screening. This technology is a game-changer, acting as a high-powered lens that finally links precise genetic challenges (CRISPR-gRNA) directly to the resulting cellular response (multiomic phenotype) in thousands of cells. The presented case studies show this is not theoretical—it’s already revealing actionable targets. For drug developers, this provides the definitive evidence and throughput necessary to transition from educated guesses to high-confidence target validation for the next generation of cancer therapeutics.

3 reasons — and key takeaways — that make this blog worth your time

  • Case Study (AT/RT Cancer): Explore a real-world example where MultiPerturb-seq uncovered ZNHIT1 as a differentiation therapy target in a rare pediatric brain tumor.
  • Case Study (T-ALL): See how the methodology successfully defined the function of recurrently mutated genes in T-cell leukemia, identifying key tumor suppressors and critical signaling pathways (STAT/NOTCH).
  • Technical Note: Learn why increasing scale with the GEM-X Flex workflow is critical for building large-scale Perturbation Cell Atlases, providing the raw, high-content data needed to train AI models for next-generation drug discovery.


Publication highlight

Comparison of single-cell RNA-seq methods to enable transcriptome profiling of neutrophils in clinical samples

In their publication Hatje et al. (2025)1, compared three commercially available single-cell RNA sequencing (scRNA-seq) technologies for their suitability in profiling neutrophils from clinical samples, a notoriously difficult cell type due to low RNA content and high sensitivity. They came to the conclusion that the GEM-X Flex workflow was the best choice for implementation in clinical trials due to its superior concordance with flow cytometry and a practical sample collection protocol that supports stabilization at clinical sites prior to transport. The study establishes crucial guidelines for prompt sample processing (fixation within 2 hours) to ensure the integrity of the sensitive neutrophil transcriptome.

1Hatje, Klas, et al. "Comparison of single-cell RNA-seq methods to enable transcriptome profiling of neutrophils in clinical samples." Cell Reports Methods 5.9 (2025).



Latest product releases

What’s next: GEM-X Flex v2 — the next step up in scalability

The plate-based GEM-X Flex is revolutionizing single cell genomics, putting breakthrough technology within reach for big projects and population-scale studies. Designed to dramatically reduce the cost per cell, this system is your solution for high-throughput discovery. The advanced chemistry allows for 384-barcoding, letting you process up to 8 million cells per chip. This unprecedented capacity, combined with a streamlined plate workflow, minimizes hands-on time, reduces errors, and ensures exceptional reproducibility across hundreds of samples. Unleash the power of massively-scaled single cell data you can trust.

Learn how the new GEM-X Flex redefines high-throughput single cell experiments.


Xenium In Situ updates
Xenium FFPE Renal Carcinoma Image

Xenium In Situ Gene and Protein Expression data for FFPE Human Renal Cell Carcinoma

Take your findings from transcript to function with an optimized and automated workflow using Xenium Protein subpanels, and unlock a new world of immunology and oncology insights with integrated gene and protein expression.

Xenium Analyzer 4.0 software interface

Dorsal root ganglion tissue dataset provided by researchers in Dr. Theodore Price’s laboratory at the University of Texas at Dallas

With the availability of Xenium protein we also released Xenium Analyzer 4.0 to enable the instrument to run Xenium Gene & Protein Expression assay.

Xenium Multimodal Cell Segmentation diagram

Cells from human pancreas with improved cell boundaries between adjacent cells

Also available is the new multimodal approach that takes advantage of cell boundary, interior, and nuclear staining to allow for improved cell calling and enables more confidence in cell segmentation than ever before. Explore deeper with 5,000-plex gene panels for unparalleled spatial discovery power.


Visium Spatial updates
Visium HD 3' Gene Expression image

Visium HD 3' Gene Expression for FF Human Mouse Xenograft

Expand your spatial discovery potential and experimental flexibility with a 3’ poly(A)-based Visium HD assay. The Visium HD 3’ assay powers whole transcriptome spatial gene expression at single cell scale across fresh frozen tissues from any species and enables feasibility for isoform, BCR/TCR, and SNV detection.


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