FR AB - Science Reference
FR AB - Science Reference
FR AB - Science Reference
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Implementation of Automation<br />
in a Small-Scale DNA<br />
Sequencing Core Facility<br />
Jennifer L. Ware, Laurie Moran,<br />
Ching-Lun Lin, and Barton Slatko<br />
New England Biolabs, Inc., Beverly, MA<br />
METHODS<br />
REVIEWS<br />
New England Biolabs (NEB) sequencing core facility provides<br />
automated sequencing services to support various<br />
company-wide projects in house, but on a very small scale of<br />
about 1000 to1500 reactions per month. A procedure has<br />
been implemented at the NEB core sequencing facility to<br />
integrate simplified methods and robotics to provide a more<br />
efficient small-scale process. This has been done using a<br />
Beckman Biomek 2000 robot combined with an MJ DNA<br />
Engine, 96-well plate cycler (PTC-200), <strong>AB</strong> 373 and 377<br />
sequencers, BMA Singel gels, and several other materials that<br />
help reduce the time required for otherwise lengthy procedures<br />
in a cost-efficient manner. Protocols have also been<br />
developed for efficient sequencing of a variety of templates<br />
submitted to the NEB core facility. (J Biomol Tech 2000;11:<br />
151–154)<br />
KEY WORDS: automation, robotics, sequencing template<br />
cleanup, small-scale DNA sequencing.<br />
ADDRESS CORRESPONDENCE AND REPRINT REQUESTS TO: Jennifer L.<br />
Ware, New England Biolabs, Inc., 32 Tozer Road, Beverly, MA<br />
01915 (email: ware@neb.com).<br />
&<br />
Journal of Biomolecular Techniques<br />
11:151–154 © 2000 <strong>AB</strong>RF<br />
RF <strong>AB</strong><br />
Genome sequencing and analysis technology<br />
has advanced in a manner that allows companies<br />
to generate enormous amounts of data<br />
per day, via automated processes, in an effort to complete<br />
genome projects and use that information as a<br />
source of possible disease treatment and control.<br />
Unfortunately, smaller core facilities, which have less<br />
of a need to produce such high-throughput data, are<br />
not the primary targets of application of these<br />
advanced technologies and are in need of simplified<br />
methods. The core sequencing laboratory at New<br />
England Biolabs, Inc. (NEB, Beverly, MA) has combined<br />
recent advances in sequencing technology to<br />
efficiently simplify the process from beginning to end.<br />
The sequencing core facility provides additional measures<br />
of quality control of appropriate DNA products<br />
for sale at NEB, such as sequencing primers and other<br />
oligonucleotides, cloning vectors by sequencing reaction<br />
assay, and vector and phage display products to<br />
ensure correct sequence. For our in-house research<br />
program, sequences are required from vector and<br />
overexpression constructs of clones, cDNA, polymerase<br />
chain reaction (PCR), phage display, and other<br />
sequencing templates, including our involvement in<br />
the Filarial Genome Project (http://www.neb.com/<br />
fgn/filgen1.html). Among those templates submitted<br />
for analysis are plasmids, M13 derivatives, � phage,<br />
PCR products, cosmids, and bacterial artificial chromosomes<br />
(BACs), each of which requires a different<br />
amount of template and/or primer per reaction and<br />
sometimes different sequencing reaction conditions as<br />
well.<br />
ELECTRONIC SUBMISSION<br />
To make this process efficient from beginning to end,<br />
researchers start by submitting an electronic form to<br />
the core facility in which key information necessary to<br />
perform the sequencing is provided. The form is accessible<br />
on the DNA Sequencing Core Facility intranet<br />
JOURNAL OF BIOMOLECULAR TECHNIQUES, VOLUME 11, ISSUE 4, DECEMBER 2000 151