Deeper insights into cancer genomics

GeneRADAR detects both cfDNA and cfRNA from a tube of blood or urine, enabling comprehensive molecular profiling of cancer.

Generadar

Comprehensive cancer profiling

DNA + RNA

In many cancer types, progression happens at both the DNA and the RNA level, and sometimes at the RNA level alone. A more holistic biomarker profiling uncovering the genomic blueprint (DNA copy number loss) and the functional biology (RNA fusion and splicing) is critical to inform clinical decisions. 

LOSS OF FUNCTION

cfDNA bi-allelic loss of function

Predicine’s cfDNA platform is capable of detecting mono-allelic vs. bi-allelic gene deletion at the chromosome level.
GeneRADAR_GeneDeletion
Predicine_Urine_cfDNA

cfDNA IN URINE

Urine-based cfDNA – More robust variant detection in bladder cancer

Urine is the ideal body fluid for non-invasive molecular profiling of bladder cancer, in which more variants can be identified in urine than in blood.

DEEPSEA

DeepSEA machine learning platform to enable ultra-sensitive cancer detection

DeepSEA algorithm is designed to navigate through deep layers of genetic noise and complexity to reveal meaningful biological data. The powerful bioinformatic pipeline for cancer mutation features an integrated collection of proprietary algorithms for sequencing/PCR error suppression and accurate variant calls, enabling confident mutation calling.

Why investigate RNA in addition to DNA?

RNA sequencing provides functional biology insights that complement the use of DNA. RNA data can confirm genomic alterations detected at the DNA level and identify genomic alterations not seen at the DNA level.

Confirms and extends DNA-based variant detection

RNA sequencing provides functional readout for better clinical decisions. RNA data can confirm genomic alterations detected at the DNA level as well as identify genomic alterations that are below detection limit of DNA assays.

Detects known and novel gene fusions

Translocation can occur anywhere and DNA is not the ideal substrate to search for oncogenic fusions without prior knowledge of detailed breakpoint information. By contrast, RNA is an intermediary between DNA and protein with only limited coding regions that need to cover. This makes RNA a better test material for known and novel fusion detections as it naturally enriches expressed translocations and only a small set of probes are necessary to detect such fusions for a given gene.

Detects RNA-specific splicing variants

RNA splicing is an unique process when precursor mRNA transcribed from DNA is transformed into a mature mRNA. RNA sequencing, by nature, is a direct solution for detection of splicing events comparing to DNA-based assays.