Cheminformatics Education, November 2008
Distance learning and other
resources:
The textbooks most commonly used in cheminformatics courses are those
by Leach and Gillet22 and Gasteiger and Engel.23 Books by Bajorath24
and by Oprea25 are also recommended. A few universities in China and
India are also teaching cheminformatics but details of these are not
well known in Europe and the United States.
The cheminformatics research group at Sheffield runs an intensive one
week short course in cheminformatics (“A Practical
Introduction
to Chemoinformatics”) which provides hands-on training for
scientists already in employment. It is sponsored by student bursaries
from the Molecular Graphics and Modelling Society and CSA Trust. It has
been run annually over four days since 2001, delivered to about 18
delegates from the United Kingdom, mainland Europe and the United
States, mostly from industry. Numbers are restricted due to the intense
nature and practical component of the course. The Institute of
Cheminformatics Studies in India offers 12-month distance training
programs26 for industry. The Louis Pasteur University of Strasbourg
will also be offering short courses for industry,27 starting in May
2009.
Distance education at Indiana uses Web conferencing and
teleconferencing. There are links with the University of Michigan, to
run the class at both Universities (but centered in Indiana). Lectures
are recorded. Out of 75 students, 39 have been distance education
students. It has been reported18 that the benefits of distance
education win out over the challenges. A wiki is used for the
introductory cheminformatics class. The University of
Erlangen-Nuremberg offers teaching modules for cheminformatics on the
Web,28 in collaboration with FIZ CHEMIE Berlin, developed within the
scope of “Vernetztes Studium-Chemie”, a lead
project of the
German Federal Ministry of Education and Research. Currently, only some
chapters are available.
DouglasConnect runs both public and private workshops and training
programs in the areas of knowledge management and innovation. It has
also an eCheminfo “community” and runs hands-on
eChemInfo
workshops.29
One problem in developing cheminformatics teaching courses is the lack
of freely available software. In bioinformatics much software has been
developed in academia and is available at zero or low cost but only
recently has free cheminformatics software begun to appear. For
example, at Indiana, ChemBioGrid30 is exploiting publicly available
chemical information. Several databases are exposed through Web service
wrappers, and the research team has also created Web service wrappers
around several free and commercial cheminformatics tools. It also has a
close working relationship with the Murray-Rust group in the Unilever
Centre for Molecular Informatics at Cambridge University and has
implemented several of their Web services locally, The researchers have
also implemented a large amount of the functionality of the Chemistry
Development Kit (CDK)31 as Web services, plus many services relating to
the R statistical package.
In the Chemoinformatics Community Wiki32 a number of researchers and
teachers in cheminformatics have joined forces to define the field in
terms of a curriculum and to create open teaching materials in
cheminformatics and chemical information based on open technologies and
standards.
The practical sessions of FCT Lisbon’s cheminformatics course
are
based on software freely available to students (free cross-platform
Java software available for different operating systems), as well as
public data sets and Web services. All required resources are
integrated into a Web portal for the course,33 enabling students to
study and practice on their own, at the practical sessions and after
classes. Use of the material on the Web is authorized to other academic
institutions provided the source is acknowledged.
Synergix Ltd. has developed commercial educational resources for drug
design, molecular modeling, cheminformatics and medicinal chemistry. In
2002 the Company launched a computer-based course34 entitled
“Molecular Conceptor" which takes advantage of interactive
multimedia systems.
Conclusion:
The catalog of courses and resources compiled in this paper might
suggest that cheminformatics education is flourishing. It is not. Many
examples of isolated efforts are cited here but there is no European or
international coordination. Cheminformatics practitioners have still
not defined their discipline and its impact, let alone successfully
made a case to governments and funding agencies. Perhaps the
pharmaceutical industry, which has much to lose, should be further
collaborating with academia to address the challenge.
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