Simultaneous assessment of current response and ΔV½ enables sensitive characterisation of KV7 modulators across screening and profiling workflows

Data Card

Simultaneous assessment of current response and ΔV½ enables sensitive characterisation of KV7 modulators across screening and profiling workflows

For programmes targeting pain and epilepsy, accurate measurement of KV7 ion channel gating behaviour is critical. Metrion assays provide reproducible, high-content data to support confident compound progression.

Reliable, high-throughput KV7 assays paired with expert interpretation enable faster progression of pain and epilepsy drug discovery programmes.

Frequently asked questions

What are KV7 ion channels?

Why are reliable, high-throughput Kv7 ion channel assays important for pain and epilepsy drug discovery programmes?


Recommended Publications
Latest Publications
An Integrated Assay Platform for Mechanistic and Translational Profiling of Kv7.2/7.3 Activators

An integrated assay platform was developed to characterise the pharmacological and physiological effects of Kv7.2/7.3 activators. Combining high-throughput FLIPR thallium flux, automated voltage- and current-clamp electrophysiology, and sensory neuron recordings enabled assessment of compound potency, mechanism of action, and effects on neuronal resting membrane potential. Profiling of retigabine, flupirtine, ML213, ICA 069673, XEN1101 and opakalim demonstrated distinct pharmacological profiles across complementary assay systems. The workflow provides a mechanistic and translational approach for characterising Kv7.2/7.3 activators and their effects on neuronal excitability.

Action Potential Waveform Analysis in Human iPSC-Cardiomyocytes Enables Mechanistic Assessment of Multichannel Cardiac Effects

Optical voltage imaging of human iPSC-derived cardiomyocytes was used to assess electrophysiological effects of compounds beyond hERG inhibition. Action potential waveform analysis revealed compound-specific and concentration-dependent changes, enabling mechanistic differentiation of multichannel activity and demonstrating a human-relevant approach for translational cardiac safety assessment.

View All
magnifier
linkedin facebook pinterest youtube rss twitter instagram facebook-blank rss-blank linkedin-blank pinterest youtube twitter instagram