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For over 10 years, TMV -based vectors have been used as plant
expression tools to examine gene regulation and function, protein
processing, pathogen elicitors, to manipulate biosynthetic
pathways, and to produce high levels of enzymes, proteins, or
peptides of interest in different locations in a plant cell. TMV
vectors often exhibit genetic stability of foreign RNA sequences
through multiple passages in plant hosts. Foreign coding sequences
can be expressed in plants where the stability, intracellular fate
and enzymatic or biological activities of the recombinant proteins
can be rapidly evaluated and optimized. These properties make viral
vectors attracti ve expression vehicles for testing and production
of a wide variety of recombinant peptides and proteins, for
structural analyses of post-translational modifications and for
assessing gene function and metabolic control. Finally, the utility
of both CP fusion and dual subgenomic vectors has extended beyond
the laboratory and greenhouse to field-scale production and
purification of recombinant products for commercial use (Grill,
1992; Grill, 1993; Turpen et at. , 1997). REFERENCES Copeman RJ,
Hartman IR and Watterson IC. 1969. Tobacco mosaic virus in
inoculated and systemically infected tobacco leaves. Phytopathology
59: 1012-1013. Dawson WO, Beck DL, Knorr DA and Grantham GL. 1986.
cDNA cloning of the complete genome of tobacco mosaic virus and
production of infectious transcripts. Proc. Natl. Acad. Sci. (USA)
83: 1832-1836. Dawson WO and Lehto KM. 1990. Regulation of
tobamovirus gene expression. Ad. Virus Res. 38:307-342. Dawson WOo
1992. Tobamovirus-Plant Interactions. Virology 186:359-367.
Volume II/26 supplements the previous compilations II/l, II/9 and
II/17 of the magnetic properties of free radicals which were
published in 1965, 1977-1980 and 1986-90. In the form of books and
CD ROM it covers the literature from about 1985 to 2001. Due to the
still rapid growth of the field and the necessary inclusion of new
subjects the volume is divided into subvolumes which will appear in
fast succession. Together with the earlier publications volume
II/26 offers an up-to-date and comprehensive survey and collection
of structures and data on the important chemical intermediates,
namely radicals, polyradicals and related species such as carbenes,
nitrenes, etc. As before the species have been grouped according to
chemical aspects. The contents of the individual subvolumes are
indicated on the inside of the front covers. For each group of
substances the literature has been compiled and extracted by
experts in the fields. A small overlap between the chapters is
intentional and allows a maximum of coherence and comprehensiveness
of the display. For the reader's convenience an index of substances
follows in the last subvolume. Data retrieval is also facilitated
by helpful links in the CD ROM version. We wish to thank all the
authors for their careful and experienced work and the most
agreeable cooperation, the Landolt- Bornstein office, especially
Mrs. A."
For over 10 years, TMV -based vectors have been used as plant
expression tools to examine gene regulation and function, protein
processing, pathogen elicitors, to manipulate biosynthetic
pathways, and to produce high levels of enzymes, proteins, or
peptides of interest in different locations in a plant cell. TMV
vectors often exhibit genetic stability of foreign RNA sequences
through multiple passages in plant hosts. Foreign coding sequences
can be expressed in plants where the stability, intracellular fate
and enzymatic or biological activities of the recombinant proteins
can be rapidly evaluated and optimized. These properties make viral
vectors attracti ve expression vehicles for testing and production
of a wide variety of recombinant peptides and proteins, for
structural analyses of post-translational modifications and for
assessing gene function and metabolic control. Finally, the utility
of both CP fusion and dual subgenomic vectors has extended beyond
the laboratory and greenhouse to field-scale production and
purification of recombinant products for commercial use (Grill,
1992; Grill, 1993; Turpen et at. , 1997). REFERENCES Copeman RJ,
Hartman IR and Watterson IC. 1969. Tobacco mosaic virus in
inoculated and systemically infected tobacco leaves. Phytopathology
59: 1012-1013. Dawson WO, Beck DL, Knorr DA and Grantham GL. 1986.
cDNA cloning of the complete genome of tobacco mosaic virus and
production of infectious transcripts. Proc. Natl. Acad. Sci. (USA)
83: 1832-1836. Dawson WO and Lehto KM. 1990. Regulation of
tobamovirus gene expression. Ad. Virus Res. 38:307-342. Dawson WOo
1992. Tobamovirus-Plant Interactions. Virology 186:359-367.
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