Enabling the Next Era of Genomics.

Welcome to the Next Generation
of DNA Sample Preparation

Introducing the World's First Physical DNA Extraction Technology.

Rapidly Prepare High Quality DNA for Any Sequencer with the Push of a Button

Break Free from Affinity Binding

Experience gentle and ultra-fast automated extraction and purification of DNA for any sequencer with our microfluidic system.

Invented and developed at Cornell University, Inso Bio's patented 'micropillar' technology uniquely captures DNA physically rather than with traditional affinity binding, enabling better sizes, purity, and ease of use.

Superior DNA

Achieve Ultra-Long DNA Fragment Sizes with Minimal Degradation Suitable for Any Downstream Sequencer.

Faster Workflow

Get DNA from Samples in 15-min, or 45-min for High Molecular Weight (HMW) DNA Used in Long Read Applications.

Multi-Omics

Built-in DNA + RNA Multiomic Isolations, and Removal of Metagenomic Contaminants via Rapid Size-Based Separation.

Small & Efficient

Prepare DNA Samples for Sequencing from as Little as a Single Drop of Blood with Our Miniturizable Benchtop System.

DNA for Any Application

Overcome the Limitations of Today's Sample Prep Platforms and Achieve Longer DNA, Fewer Short-Fragments, Higher Extraction Efficiency, and Improved Purity, All Within a Faster Turnaround.

Our Simplified Workflow

Step 1

Cellular or blood samples are loaded into the microfluidic cartridge, where the cells become immobilized within our micropillars.

Step 2

The sample is lysed ‘on-chip’, causing DNA to be extracted and purified in a single step through entanglement onto the micropillars.

Step 3

The purified High Molecular Weight (HMW) DNA is released, and subsequently collected for off-system analysis.

The Ideal Automated Benchtop Extraction for Your Lab

Our Unique Technology-Driven Benefits:

By keeping our DNA in solution, we simplify the extraction and purification process while minimizing DNA degradation caused by repeated sample handling and dehydration steps present in standard bead and column-based approaches.