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LabAutomation 2006 - SLAS

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TP81<br />

Wayne Bowen<br />

TTP LabTech<br />

Melbourn, Hertfordshire, United Kingdom<br />

wayne.bowen@ttplabtech.com<br />

<strong>LabAutomation</strong><strong>2006</strong><br />

Co-Author(s)<br />

Ben Schenker<br />

TTP LabTech<br />

Ian Yates<br />

Velocity11<br />

A Total Solution to Provide High Content Primary and Secondary Screening of a<br />

Compound Library<br />

This is because primary screens need to be fast, low cost and generate limited information. In contrast, secondary screens must provide<br />

robust, detailed information, requiring the application of more sophisticated liquid handling and detection capabilities.<br />

Advances in automation, integration, scheduling and high-content analysis technology have enabled the design of a single system to<br />

perform both the primary and secondary screens of a compound library. The primary screen process involves the initial selection of<br />

compounds from a library, which are sampled in assay-ready volumes to produce 384 well plates. Assay constituents and cells are added<br />

prior to incubation with test compound, followed by high content read-out using an Acumen Explorer microplate cytometer, giving a daily<br />

throughout of over 100,000 compounds.<br />

The secondary screen process involves cherry-picking the hits from the primary screen and generating dose response curves for each one,<br />

again in assay-ready volumes. The plates are prepared as before and analysed using an Acumen Explorer.<br />

G-protein coupled receptors (GPCR) represent the largest and most frequently screened class of receptors. TTP LabTech recently<br />

published a novel approach combining the Acumen Explorer with Invitrogen’s GeneBLAzer technology to measure GPCR activation in<br />

cell-based assays. Here, we show how this approach could be fully automated by the system described to complete the primary and<br />

secondary screens on 400,000 compounds in less than a week.<br />

TP82<br />

Chris Bridge<br />

DNA Research Innovations Ltd<br />

Kent Science Park, United Kingdom<br />

chris.bridge@invitrogen.com<br />

Co-Author(s):<br />

A. Potts<br />

T. Stevenson,<br />

M.Baker<br />

Fully Automated Extraction of gDNA From up to 10mL Whole Blood<br />

Recent advances in the fields of molecular screening, diagnostics, and clinical applications have led to increased demand for high quality<br />

dna purification techniques from whole blood (clinical) samples. Here we present a fully-automated, scalable gDNA extraction method,<br />

purifying high quality gDNA from up to 10mL whole blood. The centrifuge-free, single-tube protocol has been fully automated, from blood<br />

collection tube to purified dna on a Tecan Freedom Evo automated liquid handler.<br />

192

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