omation mbers - Society for Laboratory Automation and Screening
omation mbers - Society for Laboratory Automation and Screening omation mbers - Society for Laboratory Automation and Screening
TP025 James Dixon North Carolina State University Department of Chemistry Dabney 413 Raleigh, North Carolina 27695-8204 jmdixon2@unity.ncsu.edu 158 Co-Author(s) Jonathan S. Lindsey Developing a Versatile Program and Database for use in Laboratory Science (PhotochemCAD) Laboratory researchers often face the problem of organizing and managing large quantities of experimental data, as well as comparing their data with literature data. In the photochemical sciences, the core data include the spectral properties of diverse substances. One wants to know the absorption and emission properties of a compound, have pointers to the literature, and to be able to perform calculations using such spectral data. We have developed a software package (PhotochemCAD) that includes a database of spectral data with literature references for 125 compounds of natural and synthetic origin. Features are available for performing diverse calculations of interest across the photochemical sciences, including Förster energy transfer, oscillator strength, multicomponent analysis, blackbody radiator, etc. The program (version 1, 1998) can be downloaded: http://www.kumc.edu/POL/PAPHome/Vol68/pap68sd1.html We have been working on developing version 2 of PhotochemCAD. The upgraded version includes features for spectral manipulation and display, addition of data to the spectral database, calculations related to energy transfer among pigments, and integrated help features. We also are working to incorporate spectra for additional compounds to the database. Other features have been incorporated to create a cleaner and more intuitive interface, and to make the downloading process seamless. This development effort has much in common with research aimed at creating versatile software programs that address the needs of experimentalists in laboratory settings. This presentation will provide an overview of the program and the solutions employed in upgrading to the new version. TP026 Doug Drake IDBS 2 Occam Court, Surrey Research Park Guildford GU2 7QB United Kingdom ddrake@id-bs.com Co-Author(s) Andrew Lemon Evgueni Kolossov In Silico Drug Profiling: QSAR Models as Frontline Weapons in the Fight to Find New Drug Candidates Traditionally, model building, prediction and virtual screening has been an expert-only field, limiting more general application of such techniques. Related information and knowledge transfer between therapeutic groups has been limited and therefore the value of such models has never been fully realized. We present a model building system to develop and refine QSAR models. Designed to support rapid creation of high quality QSAR models using a variety of algorithms, the system supports creation, validation, and annotation of models. The models have application in virtual screening and property prediction of compound libraries, complementing the skills and knowledge of research scientists in designing new candidates. This platform provides a systematic approach to drug design providing the ability to build an in silico drug profile for as many relevant, measurable parameter as required. The system promotes QSAR modeling as a front line tool to aid drug discovery scientists.
TP027 Philipp Dreiss Fraunhofer IPA Department Cleanroom Manufacturing Nobelstr. 12 Stuttgart 70569 Germany Dreiss@ipa.fhg.de Capability Management Framework for Clinical Equipment in Laboratory 159 Co-Author(s) R. Muckenhirn J. Dorner A. P. Kumar The Capability Management Framework (CMF) system provides predefined and configurable sets of developed software components for the examination and evaluation of analysis results based on system and process capability patterns during the analysis process. CMF takes into account all the analysis steps and the machine parameters, which are necessary for the analysis to recognize the non-trivial coherence among the system, process capabilities and the related parameters, which can be responsible for the origination of system, process capability deviations. The evaluation criteria, strategies and expert knowledge are provided by the knowledge based system. CMF as an object-oriented framework can be used for a rapid development and integration of capability management based services within a clinical environment for scheduling and dispatching. These services extend the current features of Laboratory Information Management Systems (LIMS). The following presentation will depict the associated development process and the corresponding integration of its components in the existing software architectures and services for how to setup communication. It includes the basic framework elements, services and its integration to the other already existing software architectures. The main topics are the basic software components and the underlying communication infrastructure and protocols that support during a rapid setup and configuration process. Further the concepts for service registration and discovery in the context of the clinical environment are pointed out. The concept is shown by an implementation based for several equipment types as used in semiconductor manufacturing and pharmaceutical industries. TP028 Ping Du Black Mountain Scientific 4 Fullerton Place Livingston, New Jersey 07039 blackmountainscientific@yahoo.com SHOW – Sample Handling Operation Wizard Manual sample handling, such as moving samples or recording data visually, is a tedious and error prone process. Sample Handling Operation Wizard (SHOW) is a system developed to guide manual sample handling in laboratories. It comprises a sample tray mounted on a 15" flat-panel computer monitor. Up to four transparent micro titer plates and up to eight reagent vials may be placed on the sample tray. Images of the wells of the plates and vials are generated on the monitor and controlled by computer software. These images are directly aligned with the positions of the physical wells or vials. By highlighting the wells or vials involved in a sample handling step of a predefined protocol, manual operations can be performed with precise guidance from the system. As a result, the risk of locating a wrong sample or placing a sample at a wrong location can be minimized, and sample handling operations become more efficient and less stressful. POSTER ABSTRACTS
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- Page 148 and 149: TP001 Thor Anders Aarhaug SINTEF Ma
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- Page 154 and 155: TP013 Christine Brideau Merck Fross
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- Page 158 and 159: TP021 Cristopher Cowan Promega Corp
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- Page 186 and 187: TP076 Duraisamy Sridharan Anna Univ
- Page 188 and 189: TP080 Sarah Tao Boston University B
- Page 190 and 191: TP084 Hayley Wu Caliper Technologie
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TP025<br />
James Dixon<br />
North Carolina State University<br />
Department of Chemistry<br />
Dabney 413<br />
Raleigh, North Carolina 27695-8204<br />
jmdixon2@unity.ncsu.edu<br />
158<br />
Co-Author(s)<br />
Jonathan S. Lindsey<br />
Developing a Versatile Program <strong>and</strong> Database <strong>for</strong> use in <strong>Laboratory</strong> Science (PhotochemCAD)<br />
<strong>Laboratory</strong> researchers often face the problem of organizing <strong>and</strong> managing large quantities of experimental<br />
data, as well as comparing their data with literature data. In the photochemical sciences, the core data include<br />
the spectral properties of diverse substances. One wants to know the absorption <strong>and</strong> emission properties of a<br />
compound, have pointers to the literature, <strong>and</strong> to be able to per<strong>for</strong>m calculations using such spectral data. We<br />
have developed a software package (PhotochemCAD) that includes a database of spectral data with literature<br />
references <strong>for</strong> 125 compounds of natural <strong>and</strong> synthetic origin. Features are available <strong>for</strong> per<strong>for</strong>ming diverse<br />
calculations of interest across the photochemical sciences, including Förster energy transfer, oscillator strength,<br />
multicomponent analysis, blackbody radiator, etc. The program (version 1, 1998) can be downloaded:<br />
http://www.kumc.edu/POL/PAPHome/Vol68/pap68sd1.html<br />
We have been working on developing version 2 of PhotochemCAD. The upgraded version includes features<br />
<strong>for</strong> spectral manipulation <strong>and</strong> display, addition of data to the spectral database, calculations related to energy<br />
transfer among pigments, <strong>and</strong> integrated help features. We also are working to incorporate spectra <strong>for</strong> additional<br />
compounds to the database. Other features have been incorporated to create a cleaner <strong>and</strong> more intuitive<br />
interface, <strong>and</strong> to make the downloading process seamless. This development ef<strong>for</strong>t has much in common with<br />
research aimed at creating versatile software programs that address the needs of experimentalists in laboratory<br />
settings. This presentation will provide an overview of the program <strong>and</strong> the solutions employed in upgrading to the<br />
new version.<br />
TP026<br />
Doug Drake<br />
IDBS<br />
2 Occam Court, Surrey Research Park<br />
Guild<strong>for</strong>d GU2 7QB United Kingdom<br />
ddrake@id-bs.com<br />
Co-Author(s)<br />
Andrew Lemon<br />
Evgueni Kolossov<br />
In Silico Drug Profiling: QSAR Models as Frontline Weapons in the Fight to Find New Drug<br />
C<strong>and</strong>idates<br />
Traditionally, model building, prediction <strong>and</strong> virtual screening has been an expert-only field, limiting more general<br />
application of such techniques. Related in<strong>for</strong>mation <strong>and</strong> knowledge transfer between therapeutic groups has<br />
been limited <strong>and</strong> there<strong>for</strong>e the value of such models has never been fully realized. We present a model building<br />
system to develop <strong>and</strong> refine QSAR models. Designed to support rapid creation of high quality QSAR models<br />
using a variety of algorithms, the system supports creation, validation, <strong>and</strong> annotation of models. The models<br />
have application in virtual screening <strong>and</strong> property prediction of compound libraries, complementing the skills <strong>and</strong><br />
knowledge of research scientists in designing new c<strong>and</strong>idates. This plat<strong>for</strong>m provides a systematic approach to<br />
drug design providing the ability to build an in silico drug profile <strong>for</strong> as many relevant, measurable parameter as<br />
required. The system promotes QSAR modeling as a front line tool to aid drug discovery scientists.