
Explore the benefits of combining short read whole genome sequencing, optical genome mapping, and transcriptome analysis for improved constitutional and cancer diagnostics.

Explore fast, flexible, and cost-efficient next-generation sequencing on the G4 platform. Learn about core NGS applications and their data from an expert in computational biology and immunology.

Explore advancements in automated NGS platforms and optimized workflows for improved lab economics in genomics and oncology, featuring insights from industry experts.

Explore gene editing frontiers and genotypic confirmation's role in cellular physiology research, disease understanding, and treatment development. Gain insights into precision genome engineering techniques.

Explore targeted NGS variant detection for viral and bacterial pathogens, enhancing healthcare and environmental surveillance with high-sensitivity solutions.

Discover how new QIAseq chemistry accelerates NGS workflows for targeted sequencing, enhancing efficiency and productivity in genomic research.

Explore machine learning applications in Next Generation Sequencing data analysis, focusing on key techniques for processing biological data from cells, tissues, and organisms.

Explore AI-driven personalized cancer treatment ranking using comprehensive molecular data. Learn about innovative computational methods for precision oncology and targeted therapy selection.

Explore the future of personalized medicine, its potential to revolutionize healthcare, and the challenges it faces in implementation, regulation, and patient adoption.

Next-gen sequencing accelerates diagnosis of mysterious infectious diseases, enabling faster life-saving treatments. Learn about metagenomics, nanopore sequencing, and real-time sequencing applications.

Explore the revolutionary impact of precision medicine on healthcare, addressing access, data governance, and ethics with industry leaders and policymakers.

Explore the NIH's battle against antibiotic-resistant Klebsiella pneumoniae using DNA sequencing. Learn about outbreak tracing, infection control, and the challenges of combating this urgent threat in hospitals.

Automate IDT xGen™ hybridization capture for uniform coverage and robust performance. Learn to generate reproducible targeted NGS libraries using Biomek i7 automation for efficiency and consistency.

Explore next-generation sequencing's role in advancing hematology research and personalized genomics for improved patient outcomes.

Explore efficient and accurate methylation profiling tools for low-input samples with IDT's xGen™ Methyl-Sequencing Workflow.

Explore advanced techniques for analyzing SARS-CoV-2 sequencing data, including haplotype assembly, phylogeny reconstruction, variant identification, and network representation of genomic information.

Explore challenges in creating a universal metagenomic diagnostic test for disease detection, focusing on scalability, sensitivity, and application in community surveillance.

Explore advanced techniques for identifying ultra-low frequency variants in cancer research, enhancing biomarker discovery and personalized treatment strategies.

Explore advanced NGS solutions for cancer and MRD research, enhancing library complexity and offering customizable hybridization capture approaches.

Discover how to effectively identify and interpret clinically significant mutations in NGS cancer testing, focusing on practical approaches to overcome data interpretation challenges in precision medicine.

I've been a human guinea pig taking every health test possible that doesn't hurt me over the past 25 years. What have I have learned about my health—present and future—and what does this mean for you? David Ewing Duncan is an award-winning science and technology journalist, researcher, and entrepren