Latest Whitepapers

This article explores how quality control can improve protocol standardization, enhance scalability and ensure that cultures meet regulatory criteria.

One factor that can significantly impact the success of oncology drug development is the preclinical model used. The right model can provide valuable insights into key interactions within the body and help researchers to better understand how tumors respond to treatment.

This whitepaper highlights the latest bioprocessing film technologies to help you meet your upstream and downstream needs.

This literature review explores the latest in 3D immune cell killing assays for cancer immunotherapy research.

A scalable and robust solution for all stages of the gene therapy workflow to meet regulatory standards is essential, however, as the field is more recent, liquid media is the common format even though it can be more expensive and have a shorter shelf life.

Tissue dissociation is a crucial sample preparation step that enables the isolation of specific cell populations for downstream applications such as single-cell RNA sequencing. Enzymatic tissue dissociation is widely used, but some researchers have concerns about the impact of enzymes on cell marker expression.

As researchers endeavor to map the architecture of the brain, many rely on tissue dissociation approaches to prepare single-cell suspensions for downstream analysis. Howev er, such conventional methods can involve enzymes and heat, which are known to induce transcriptional and proteotype changes in brain cells.

Cell culture is essential for a variety of applications including disease modeling, drug discovery, cell-based manufacturing and genetic engineering.

The rapid and accurate identification of microbial contaminants is crucial for quality control in pharmaceutical processes and products. However, until recently, testing labs have relied on time-consuming phenotypic approaches to ensure that safety standards are met.

This whitepaper highlights specific case studies that reveal how researchers are applying nanopore technology to a variety of sequencing techniques, including whole genome, targeted, RNA sequencing and single-cell analysis.