Company

Technology

Discover scalable, instrument-free single cell sequencing technology from Parse Bioscience

Technology Overview


Resources

Explore our collection of resources to learn more about technology and its applications from leading researchers

Resources Overview

Company

Providing researchers single cell sequencing with unprecedented scale and ease

About Parse

Technology

Discover scalable, instrument-free single cell sequencing technology from Parse Bioscience

Technology Overview

Products

Gain biological insights from these sequencing solutions

Products Overview

Transcriptomic Analysis of a Chemotherapy Resistant Cancer Cell State


Cancer lethality arises from the emergence of therapeutic resistance in the face of an increasing array of drugs and novel regimens targeting everything from proliferation, DNA integrity, metabolism, cell contacts, and more. Our group studies an underappreciated endocycling cancer cell state that contributes to therapeutic resistance in numerous cancer settings. Cells in this state uncouple DNA replication from cell division to obtain abnormally high genomic count and cell size (>70x volume).

We work on a human prostate cancer cell line, chosen because the cells readily become refractory to treatment. Utilizing the Evercode WT v2 assay, we profiled untreated cancer cells alongside those in the cancer cell state. Our first dataset successfully captured the dramatically increased RNA content and provided insight into multiple cell state trajectories after chemotherapy induction.

Phase contrast images of samples showing increasing cell size.

Reads and median genes detected per cell across four sample timepoints. Error bars are standard deviation across three biological replicate samples. Because all cells are represented in each sublibrary, reads/genes/UMI per cell are indicative of RNA amount per cell.

Sample Table

IDSampleRecovery Time post-chemo (days)Processed
AUntreated CellCells
BTreated Cell1Cells
CTreated Cell5Cells
DTreated Cell10Cells

"Single cell resolution is vital to capturing the complexity of cancer but droplet-based methods are unreliable for morphologically large cells."

-Luke Loftus, Johns Hopkins School of Medicine
-Chris Cherry, CM Cherry Consulting

We're your partners in single cell

Reach out for a quote or for help planning your next experiment.