We demonstrate the generation and validation of a stable CHO-hHCN2 cell line used as a cellular tool in the successful development of hHCN2 automated electrophysiology screening assays.
Reduce the chance of late-stage failures due to cardiac toxicityDefining the exposure associated with QRS prolongation probability is essential for assessing cardiovascular risk in drug discovery, as it helps identify compounds that may cause ventricular conduction delays and increase the likelihood of life-threatening arrhythmias.
Prolongation of the QRS interval indicates impaired ventricular depolarisation, often due to sodium channel (NaV1.5) blockade, which can lead to conditions like bundle branch block or re-entrant arrhythmias. Regulatory agencies consider significant QRS widening a key safety concern as it is associated with an elevated risk of sudden cardiac events.
By accurately defining the drug exposure levels that affect QRS duration, researchers can establish safety margins, prioritise lower-risk compounds, and reduce the chance of late-stage failures due to cardiac toxicity. This proactive approach improves drug development efficiency and enhances patient safety.
Read more about our hiPSC cardiomyocyte assay.
We demonstrate the generation and validation of a stable CHO-hHCN2 cell line used as a cellular tool in the successful development of hHCN2 automated electrophysiology screening assays.
Metrion and Sophion collaborated to determine whether other insoluble salts can act as seal enhancers, or whether this property is unique to CaF2.