Palo Alto, California
April 8, 1999Molecular Applications Group (MAG) and Monsanto Company
announced today an agreement under which MAG will apply their proprietary technology to
support Monsanto scientists in identifying, selecting, and prioritizing targets for
agricultural and pharmaceutical applications.
The technology improves the prediction of gene and protein function and draws upon MAG's
expertise in protein sequence and structure analysis.
"Determining the function of novel proteins continues to be one of the most difficult
and time-consuming challenges we face. Yet it is an essential step in efficiently
identifying, prioritizing, and selecting targets,'' says Dr. Paul Spence, Head of
Biotechnology, within the Searle Division of Monsanto. "MAG's unusual depth of
expertise, particularly in understanding the sequences and structures of proteins, makes
them an ideal partner to help us surmount this challenge.''
In its work with Monsanto, MAG intends to employ three proprietary and complementary
techniques that rely on Hidden Markov Models, protein threading, and phylogenetic
analysis. The core technology is captured in three proprietary components, SHMMs, ATHOS,
and BETE.
"In combination,'' says Paul Thomas, Ph.D., Executive Director of Research at MAG,
``these algorithms produce a discovery system that greatly increases the reach of remote
homolog detection, as well as the ability to classify novel genes in the context of
related sequences. In addition, this system is highly scaleable, and will enable Monsanto
to rapidly process large amounts of data.''
Monsanto will be the first company to receive access to this technology with a goal of
improving the effectiveness of their new gene discovery efforts. The partnership will
deploy this system on both human and agricultural protein targets. The project will
utilize MAG's methods for associating target genes with genes that perform similar
functions even when there is minimal sequence similarity.
In addition, automated subfamily classification of target sequences will be demonstrated
on a large-scale basis. This project addresses the fact that new approaches are urgently
needed to maximize the value of genomics information.
Currently used methods fail to correctly identify the function of about 70% of known or
newly discovered genes. Significant improvement in this methodology would speed the
development of pharmaceuticals and other biologically useful products. MAG's expertise in
using structural motifs and weak sequence clues for predicting function holds tremendous
promise in this area.
"This unique approach,'' according to Thomas, ``goes well beyond comparing pairs of
gene sequences to determine similarity in function. It is at this point,'' he says, ``that
computational representations of molecular structure and of protein sequence families
become particularly important, and where MAG's proprietary technology offers information
beyond what is publicly or commercially attainable elsewhere.''
"This is the first in a series of Discovery Partnerships we will be undertaking,''
John Andrews, Executive Vice President and Chief Operating Officer at MAG explained. ``Our
activities moving forward will not only continue in our traditional area of strength,
protein visualization and modeling software, but will also reflect more of our unique and
sophisticated competencies in protein function determination.''
Terms of the agreement were not disclosed.
Monsanto is a life sciences company, committed to finding solutions to the growing global
needs for food and health by sharing common forms of science and technology among
agriculture, nutrition and health. The company's 31,800 employees worldwide make and
market high-value agricultural products, pharmaceuticals and food ingredients.
Molecular Applications Group Inc., located in Palo Alto, through its proprietary
technology and expertise in the science of bioinformatics, enables pharmaceutical,
biotechnology, and agricultural companies to better understand the role of proteins, and
to therefore dramatically accelerate the identification, selection, and prioritization of
drug targets.
MAG offers strong capabilities in elucidating gene function through software, transformed
content
databases and partnerships, based upon its expertise in determining biochemical function
and in cellular role analysis.
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