Specialist, cost efficient, ion channel high-throughput screening

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Expertise to support hit finding, hit-to-lead, lead optimisation and selectivity profiling for your drug discovery project

The high-throughput screening of vast numbers of compounds is pivotal to the drug discovery process. It is often an expensive and time-consuming process, which can return false positive results. What sets us apart is our specific high-throughput screening knowledge and broad experience across multiple ion channel targets, enabling us to generate reliable, reproducible data and reduce the risk of costly downstream failures.

By working with our ion channel high-throughput screening specialists, you will have access to a dedicated and highly experienced team to support hit-finding campaigns, hit-to-lead activities, and lead optimisation, with follow-up selectivity profiling.

Expert drug discovery leadership

Your project will be led by a Leadership Team with over 125 years of combined drug discovery experience, predominantly in the ion channel field. Once we have run your project, we will interpret the data, communicate the results clearly, and support your decision-making to best inform your screening strategy and accelerate development timelines.

Our complementary phenotypic and translational assays enable further, detailed characterisation of your lead compounds, helping you make informed choices in progressing your drug discovery programme with confidence and scientific rigour.

Cell line generation for ion channel screening projects

Custom cell line generation, assay development, and optimisation are also provided in-house, ensuring a seamless, integrated approach tailored to your unique programme goals.

Figure 1. Screening against V434L KCNC1 using thallium flux assay. Read the drug repurposing high-throughput screeningcase study about a recent project researching a rare de novo variant in the KCNC1 gene.

Access to Enamine and Assay.Works compound libraries

To support your medicinal chemistry programmes and structure-activity relationship (SAR) studies, we offer access to commercially available compound libraries from Enamine and Assay.Works.

Case study: Multi-assay High-throughput drug repurposing screen: KCNC1

Our approach enabled a long-term Kv1.3 screening project to expand medicinal chemistry SAR and successfully identify selective small molecule modulators by accessing high quality APC and ion channel expertise. Through this long-term collaboration with a pharmaceutical company, Metrion delivered: exceptional long-term reliability of the optimised primary target screen and counter-screen assays over the course of two years, bespoke development of cell lines, including support of complete gene family selectivity and species selectivity studies, wider selectivity studies including extended cardiac (CiPA) panel screening, and exploration of mechanism of action (e.g. closed, open or inactivated state block).

Read the full Case Study

Small molecule library and modular screening decks 
to suit your project and budget

Figure 2: Physico-chemical property profile of Assay.Works library according to Lipinski’s Rule of 5 (left); Prediction of compound properties and drug-like features: Colloidal Aggregation, Permeability, Bioavailability, Solubility, PAINS.

Figure 3: Assay.Works compound sets and diversity metrics based on Bemis-Murcko clusters.

A combined, flexible, approach for your high-throughput ion channel screening project

By screening across multiple platforms, including fluorescence (FLIPR) and automated electrophysiology (Qube) instruments synergistically, we offer flexibility to progress your project as efficiently and cost-effectively as possible.

Ion Channel Screening Resource Library
Nav1.5 late current in WT and Nav1.5-ΔKPQ mutant channels: an automated patch clamp LQT3 electrophysiological assay comparison

The cardiac late Na+ current (late INa) generates persistent inward currents throughout the plateau phase of the ventricular action potential and is an important determinant of repolarisation rate, EADs and arrythmia risk¹. As inhibition of late INa can offset drug effects on hERG and other repolarising K⁺conductances, it is one of the key cardiac channels in the Comprehensive in vitro Pro-arrythmia Assay (CiPA) panel being developed by the FDA to improve human clinical arrythmia risk assessment²̛ ³.

Development of an impedance-based screening assay for cardiac safety and cardiotoxicity detection in stem cell-derived cardiomyocytes

Cardiac toxicity remains the leading cause of new drug safety side-effects. Current preclinical cardiac safety assays rely on in vitro cell-based ion channel assays and ex vivo and in vivo animal models⁽¹⁾. These assays provide an indication of acute risk but they do not always predict the effect of chronic compound exposure, as recently seen with oncology drugs. Therefore, new assays are required to characterise chronic structural and functional effects in human cells earlier in drug discovery. Impedance-based technology can provide more accurate chronic cardiotoxicity measurements in an efficient manner using human induced pluripotent stem cell-derived cardiomyocytes (hiPSC-CMs).

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Metrion Biosciences is a contract research organisation (CRO) specialising in high-quality preclinical drug discovery services.
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