Complex biological systems are determined by the coordinated functions of individual cells. Conventional methods that provide bulk genome or transcriptome data are unable to reveal the cellular heterogeneity that drives this complexity. Single-cell sequencing is a next-generation sequencing (NGS) method that examines the genomes or transcriptomes of individual cells, providing a high-resolution view of cell-to-cell variation.
Highly sensitive ultra-low-input and single-cell RNA sequencing (RNA-Seq) methods enable researchers to explore the distinct biology of individual cells in complex tissues and understand cellular subpopulation responses to environmental cues. These assays enhance the study of cell function and heterogeneity in time-dependent processes such as differentiation, proliferation, and tumorigenesis.
Single-cell and ultra-low-input RNA-Seq are powerful tools for studying the transcriptome in an unbiased manner from minimal input.
Single-cell sequencing can reveal the cell types present and how individual cells are contributing to the function of complex biological systems. See how you can use the Illumina workflow for single-cell sequencing, from tissue preparation through analysis.
Learn best practices for preparing cell suspensions with sample preparation solutions from Miltenyi Biotec.
View WebinarResearchers from UCSF discuss MULTI-Seq, a sample barcoding strategy for single-cell and single-nucleus RNA sequencing.
View WebinarWe highlight several applications of fully supported workflows that can take you from single-cell suspensions to analyzed data.
View WebinarThe DRAGEN Single-Cell RNA (scRNA) Pipeline can process multiplexed single-cell RNA-Seq data sets from reads to a cell-by-gene UMI count gene expression matrix. The pipeline is compatible with library designs that have one read in a fragment match to a transcript and the other containing a cell-barcode and UMI. The pipeline includes the following functions:
Partek Flow takes you from raw RNA-Seq data to pathways with powerful statistics and visualizations. Seamlessly analyze data with easy-to-use workflows and interactive visualizations with no command-line experience needed. It combines the powerful statistics you trust with information-rich, interactive visualizations to take your analysis from start to finish. It’s as simple as point, click, and done.
In this webinar, a team of experts outline the essential concepts and benefits of single cell analysis and why scientists should consider it for their research. They illuminate the analytical process and discuss strategies to overcome common analysis challenges.
You’ll learn:
Unify single-cell gene expression and chromatin accessibility to help reveal cellular mechanisms driving gene regulation.
Enabling research to tease apart cellular heterogeneity in complex samples using Chromium Single Cell Gene Expression from 10x Genomics
Learn more about single-cell sequencing technologies that combine analysis of RNA and protein with BioLegend
Learn how XLEAP-SBS chemistry combined with 10x Genomics single-cell and spatial solutions enable high-resolution genomics on the NextSeq 1000 and NextSeq 2000 Systems.
Read Application NoteBy analyzing one cell at a time, Professor Amit is improving our understanding of biological systems in health and disease.
Read ArticleSingle-cell sequencing proves invaluable in detecting intracellular communication in tumors.
Read InterviewSee an overview of peer-reviewed publications using Illumina technology for single-cell sequencing.
Read ReviewSwetha Anandhan from the MD Anderson Cancer Center joins Illumina and 10x Genomics for this webinar. She highlights the use of single cell RNA-sequencing to identify a unique population of macrophages in glioblastoma multiforme that persists after treatment with immune checkpoint inhibitors.
View WebinarSingle-cell sequencing methods can be distinguished by cell throughput. Low-throughput methods include mechanical manipulation or cell sorting/partitioning technologies and are able to process dozens to a few hundred cells per experiment.
Recent advances in microfluidic technologies have enabled high-throughput single cell profiling where researchers can examine hundreds to tens of thousands of cells per experiment in a cost-effective manner. Both the high - and low- throughput methods utilize Illumina sequencing by synthesis (SBS) chemistry, an industry leading sequencing technology. Illumina SBS technology generates >90% of the world's sequencing data.*
James Eberwine explains how single-cell RNA sequencing can be used in vivo to understand how individual cells function in their microenvironment within a complex organism.
View VideoGain valuable insight into gene expression with this sensitive, scalable, and cost-effective high-throughput workflow.
The low-throughput method below is recommended for researchers who wish to process small numbers of cells for a particular study, such as dozens to a few hundred cells per experiment.
Seek out a best-in-class next-generation sequencing company with user-friendly bioinformatics tools and industry-leading support and service.
See the EvidenceMethods that allow researchers to simultaneously sequence RNA and detect extracellular proteins in individual cells reveal new cell types and states associated with disease.
Read MoreATAC-Seq is a widely used method that uses the hyperactive transposase Tn5 to assess chromatin accessibility. It can be performed on single cells at high resolution.
Learn more about ATAC-SeqDetect cancer gene expression and transcriptome changes and identify novel cancer transcripts with RNA-Seq.
Learn MoreNGS methods help broaden research beyond conventional methods and allow global analyses of gene expression and regulation.
Learn MoreResearchers characterized cell-to-cell communication via ligand-receptor interactions across cell types in a tumor microenvironment.
Read PublicationScientists used single-cell RNA sequencing to demonstrate that hematopoietic stem cell lineage commitment is a gradual process without differentiation into discrete progenitors.
Read PublicationResearchers used single-cell RNA-Seq to explore the effects of aging on the immune system, observing that age-related cell-to-cell transcriptional variability is a hallmark of aging.
Read Publication