Featured Stories

From quantifying a patient’s tumor DNA to counting the viral load of an individual infected with COVID-19, the breadth of digital PCR (dPCR) applications continues to grow and fulfill critical scientific needs. dPCR offers the ability to count nucleic acid molecules directly, rather than extrapolating the quantity from standard curves as with many other methods. By harmonizing diagnostic procedures on dPCR platforms, the scientific and medical communities can become more coordinated and efficient.

Incorporating fluorescence-based cell sorting into your lab grants you powerful access to new research areas and rarer cell types without sacrificing efficiency or results. New, powerful techniques like CRISPR and single-cell analysis are enhanced by the isolation of specific cells. But isolating cell populations of the right quality and quantity is both challenging and time consuming. We offer some tips to set yourself up for success and get the most out of your sorts.

A recent publication showed that expression of a protein involved in homology-directed repair (HDR) can improve efficiency of CRISPR-Cas9 gene editing. Learn how manipulation of DNA repair pathways and improvements to gene editing workflows, such as the addition of cell sorting, can facilitate applications of CRISPR-Cas9 technology.

Drug discovery and development are both time and resource intensive since a lot of different compounds need to be screened across a lot of different targets. See how machine learning models can be used to predict screening results and how active learning algorithms can be used to efficiently select which experiments to perform in order to build those models.

Many patients with treatment-resistant blood cancers have found new hope in chimeric antigen receptor (CAR)-T cell therapy. But generation of CAR-T cells at clinical scale can be challenging. Find out how the Gene Pulser Xcell Electroporation System can be used to reduce costs and risks associated with clinical-scale CAR-T cell production, while maintaining GMP compliance.

Many BioPharma organizations are moving to the cloud in order to improve the performance and speed, cost, physical and personnel resources, security, back up, and sharing/collaboration associated with large, complex datasets. Learn about the different strategies used in migrating to the cloud.

One-step multiplex RT-qPCR is a technique used to rapidly quantify multiple targets directly from RNA in a single reaction. But proper optimization and validation is essential for its success. These five tips will have you designing primers and probes, selecting reporters, and validating and optimizing your experiments like a pro.

Our new hydrophobic anion exchange mixed-mode resin, Nuvia aPrime 4A, has been developed to overcome existing challenges in antibody purification. See how we purified an acidic and basic antibody through bind-elute and flow-through modes of purification, respectively, and helped to improve process productivity and economy.

RT-qPCR is a well-established method for the detection, quantification, and typing of different microbial agents. However, when dealing with the challenges of pathogen detection, not all RT-qPCR reagents are created equal. See how we used a novel one-step multiplex RT-qPCR supermix to demonstrate sensitive codetection of viral RNA and DNA targets in a multiplex setting.

qPCR has become ubiquitous for nucleic acid detection and quantification and remains the gold standard for a wide array of applications. To help you publish high-quality, reproducible data that reflect true experimental conditions, we’ve developed this comprehensive guide to performing the ultimate qPCR experiment.