
Automated Lab
Automation for high-throughput, fast and affordable results
Automated Sample Preparation Workflow for Proteomic Assays

Our automated sample preparation workflow provides robust, reproducible proteomics samples for high-throughput applications. This “cells-to-peptides” automated workflow for Gram-negative bacteria and fungi consists of cell lysis, protein precipitation, resuspension, quantification, normalization, and tryptic digestion.
Use case: This workflow was shown to successfully process four 96-well plates (384 samples) in parallel in under 6 hours for subsequent analysis in liquid-chromatography-mass spectrometry systems. This workflow alleviates manual labor and the risk of repetitive stress injuries from researchers preparing thousands of proteomics samples. Learn more about this workflow.
Automated Robotic Pipeline for Enzyme Expression/Purification/Assay

Our robot-assisted pipeline provides a fast and affordable platform for high-throughput protein purification. This pipeline can purify 96 proteins at once with minimal waste and can be scaled to process hundreds of proteins per week.
This pipeline was used to express and purify a set of PET-depolymerizing enzymes. The pipeline was found to be highly reproducible, and it achieved sufficient yields and purity required for activity assays and biophysical characterization.
Microbioreactor Systems and Sampling Platform
Our high-throughput systems for biological engineering and process development can be used to perform process optimization and strain screening, ensure data quality and reproducibility, and gain valuable insights before scaling up to bioreactors.
BioLector
A high-throughput cultivation system based on microtiter plates with on-line continuous monitoring of cell density, dissolved oxygen (DO), pH, and fluorescence.
RoboLector
A liquid handling system that can be utilized for automated sampling, bolus feeding, and discontinuous pH adjustments in conjunction with the BioLector instrument for fed batch experiments.
BioLector Pro

A cultivation system that uses microtiter plates with microfluidic systems that allow for continuous individual pH and feeding control, in addition to on-line monitoring of cell density, DO, and fluorescence.
USE CASE
The BioLector microbioreactor system was utilized during the “Build” and “Test” phases of the Design-Build-Test-Learn (DBTL) cycle to optimize media compositions for enhancing compound titers in specific bacterial strains.
Production data fed into machine learning algorithms identified media components that improved titers. The collected data was used to predict and refine new media compositions. Through iterative cycles on the BioLector system, compound titers were successfully increased by 148%
