Abstract: Division arrested cells are used in screening assays to determine the effect of a substance of interest on the cells. The division arrested cells can be used in drug screening assays, signal transduction assays, and are especially useful in large scale, high throughput assays.

Abstract: Disclosed are assays, methods, and kits for the screening of test compounds for their capability to induce cardiotoxicity in a subject. In particular, whether a test compound has the effect to prolong the Q-T interval as measured by an electrocardiogram in a human. The assays, methods, and kits disclosed herein make use of the binding interaction between novel fluorescent tracers and the hERG K+ channel, and the propensity of a test compound to influence that binding interaction.

Abstract: Disclosed are assays, methods, and kits for the screening of test compounds for their capability to induce cardiotoxicity in a subject. In particular, whether a test compound has the effect to prolong the Q-T interval as measured by an electrocardiogram in a human. The assays, methods, and kits disclosed herein make use of the binding interaction between novel fluorescent tracers and the hERG K+ channel, and the propensity of a test compound to influence that binding interaction.

Abstract: Division arrested cells are used in screening assays to determine the effect of a substance of interest on the cells. The division arrested cells can be used in drug screening assays, signal transduction assays, and are especially useful in large scale, high throughput assays.

Abstract: Division arrested cells are used in screening assays to determine the effect of a substance of interest on the cells. The division arrested cells can be used in drug screening assays, signal transduction assays, and are especially useful in large scale, high throughput assays.

Abstract: Division arrested cells are used in screening assays to determine the effect of a substance of interest on the cells. The division arrested cells can be used in drug screening assays, signal transduction assays, and are especially useful in large scale, high throughput assays.

Abstract: Disclosed are assays, methods, and kits for the screening of test compounds for their capability to induce cardiotoxicity in a subject. In particular, whether a test compound has the effect to prolong the Q-T interval as measured by an electrocardiogram in a human. The assays, methods, and kits disclosed herein make use of the binding interaction between novel fluorescent tracers and the hERG K+ channel, and the propensity of a test compound to influence that binding interaction.

Abstract: Division arrested cells are used in screening assays to determine the effect of a substance of interest on the cells. The division arrested cells can be used in drug screening assays, signal transduction assays, and are especially useful in large scale, high throughput assays.

Abstract: Division arrested cells are used in screening assays to determine the effect of a substance of interest on the cells. The division arrested cells can be used in drug screening assays, signal transduction assays, and are especially useful in large scale, high throughput assays.

Abstract: Division arrested cells are used in screening assays to determine the effect of a substance of interest on the cells. The division arrested cells can be used in drug screening assays, signal transduction assays, and are especially useful in large scale, high throughput assays.

Abstract: Division arrested cells are used in screening assays to determine the effect of a substance of interest on the cells. The division arrested cells can be used in drug screening assays, signal transduction assays, and are especially useful in large scale, high throughput assays.

Abstract: Division arrested cells are used in screening assays to determine the effect of a substance of interest on the cells. The division arrested cells can be used in drug screening assays, signal transduction assays, and are especially useful in large scale, high throughput assays.

Abstract: A casting apparatus for receiving electrophoretic gel trays is disclosed. The casting apparatus includes a pair of spaced apart seal elements which are movable with respect to one another to provide one or, more openings of varying size to receive a corresponding gel tray therein. The open ends of the gel tray are sealed by the seal elements so that hot argrose or polyacrylamide gel may be poured into the gel tray for forming a gel layer of predetermined thickness. The seal elements are maintained in sealing engagement with the open ends of the gel trays by means of a rod frictionally engaged between a portion of the housing forming the casting apparatus and one of the seal elements.