Reduce ocular cognitive fatigue and eliminate subjective variability in pathological assessment through automated learning algorithms.
Evaluating membrane tumor staining under high-power fields requires pathologists to select subjective hotspots, count thousands of individual cellular structures manually, and separate brown DAB pigmentation from violet cell nuclei visually.
Repetitive search routines and diagnostic backlog stress increase borderline scoring error rates.
PCI's digital pathology assessment suite utilizes machine learning algorithms for stain deconvolution and nuclear segmentation. It returns quantitative biomarker scores in minutes.
Allows pathology laboratories to reclaim nearly 45% of evaluation schedules, ensuring highly reproducible results.
How our cloud-hosted engine parses multi-gigabyte scans on the fly.
Pathologist uploads a massive scanner file (e.g., SVS or NDPI). Our backend uses OpenSlide to split the gigapixel array into local 256x256 tiles, loading only what is navigated.
The mathematical algorithm separates stained colors by isolating violet cell nuclei (Hematoxylin) from biomarker protein expression (brown DAB) into separate pixel matrices.
Neural networks draw cell boundaries, evaluate stain densities against calibrated reference cell plugs, and calculate tumor proportion scores.
Unlike other digital pathology software trained on highly subjective, inconsistent patient resections, our algorithms are trained directly on PCI's proprietary sequence-characterized reference cell lines. This establishes an absolute baseline calibrated against known genomic targets, preventing staining variations from corrupting model outputs.
Fully Integrated Biomarkers:
Our viewer allows pathologists to toggle raw WSI images with AI scoring masks dynamically, isolating tumor regions of interest from normal tissue compartments.
Our digital whole slide scoring tools support standard hospital information systems and clinical API connections.