High throughput electrophysiology: new perspectives for ion channel drug discovery.

N. Willumsen, M. Bech, S. Olesen, B. Jensen, Mads P. G. Korsgaard, P. Christophersen
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引用次数: 51

Abstract

Proper function of ion channels is crucial for all living cells. Ion channel dysfunction may lead to a number of diseases, so-called channelopathies, and a number of common diseases, including epilepsy, arrhythmia, and type II diabetes, are primarily treated by drugs that modulate ion channels. A cornerstone in current drug discovery is high throughput screening assays which allow examination of the activity of specific ion channels though only to a limited extent. Conventional patch clamp remains the sole technique with sufficiently high time resolution and sensitivity required for precise and direct characterization of ion channel properties. However, patch clamp is a slow, labor-intensive, and thus expensive, technique. New techniques combining the reliability and high information content of patch clamping with the virtues of high throughput philosophy are emerging and predicted to make a number of ion channel targets accessible for drug screening. Specifically, genuine HTS parallel processing techniques based on arrays of planar silicon chips are being developed, but also lower throughput sequential techniques may be of value in compound screening, lead optimization, and safety screening. The introduction of new powerful HTS electrophysiological techniques is predicted to cause a revolution in ion channel drug discovery.
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高通量电生理学:离子通道药物发现的新视角。
离子通道的正常功能对所有活细胞都至关重要。离子通道功能障碍可能导致许多疾病,即所谓的通道病变,许多常见疾病,包括癫痫、心律失常和II型糖尿病,主要通过调节离子通道的药物治疗。当前药物发现的基石是高通量筛选分析,它允许检查特定离子通道的活性,尽管只是在有限的程度上。传统膜片钳仍然是唯一的技术,具有足够高的时间分辨率和灵敏度,需要精确和直接地表征离子通道特性。然而,膜片钳是一个缓慢的,劳动密集型的,因此昂贵的技术。结合膜片钳夹的可靠性和高信息量与高通量理念优点的新技术正在出现,并预计将使许多离子通道靶点可用于药物筛选。具体来说,基于平面硅芯片阵列的真正HTS并行处理技术正在开发中,但低通量顺序技术可能在化合物筛选,先导优化和安全筛选中具有价值。预计新的强大的高温超导电生理技术的引入将引起离子通道药物发现的革命。
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