Cell Culture In Phytochemistry

Cell Culture and Somatic Cell Genetics of Plants, Volume 4: Cell Culture in Phytochemistry reviews phytochemistry by employing plant cell cultures. This book discusses the realization of industrial plant cell culture for the production of phytochemicals and molecular biological approach to understand the regulation of product synthesis. The topics covered include the accumulation of secondary metabolites, phenolic production in cultured tissues, and stability of clones and subclones. The somatic hybridization by protoplast fusion, various techniques for continuous culture of plant cells, and methodology of enzyme-linked immunosorbent assays (ELISA) are also deliberated. This volume provides intensive information on all aspects of plant cell and tissue culture and is recommended to both experienced researchers and to those newly entering the field.

Cell Culture and Somatic Cell Genetics of Plants, Volume 5: Phytochemicals in Plant Cell Cultures provides comprehensive coverage of the wide variety of laboratory procedures used in plant cell culture, fundamental aspects of cell growth and nutrition, and plant regeneration and variability. This book consists of five main topics—phenylpropanoids, naphthoquinones, and anthraquinones; mevalonates; alkaloids; glucosinolates, polyacetylenes, and lipids; and biologically active compounds. This publication specifically discusses the coumarins in crown gall tumors, natural occurrence of bufadienolides, and accumulation of protoberberine alkaloids. The flavor production in tissue cultures of allium species and callus cultures derived from carrot root explants is also reviewed. This volume is valuable to experienced researchers and those newly entering the field of plant cell and tissue culture.

Plant cell cultures are used extensively in studies of secondary metabolism, for the biosynthesis of pharmaceuticals, flavors, essences, and pigments. This book highlights recent developments in the in vitro growth of cultured plant cells and in the production of valuable secondary metabolites. Plant Cell Culture Secondary Metabolism details research on many exciting areas including:

Plant cell cultures are used extensively in studies of secondary metabolism, for the biosynthesis of pharmaceuticals, flavors, essences, and pigments. This book highlights recent developments in the in vitro growth of cultured plant cells and in the production of valuable secondary metabolites.

Plants produce more than 30,000 types of chemicals, including pharmaceuticals, pigments and other fine chemicals, which is four times more than those obtain ed from microbes. Plant cell culture has been receiving great attention as an alternative for the production of valuable plant derived secondary metabolites, since it has many advantages over whole plant cultivation. However, much more research is required to enhance the culture productivity and reduce the pro cessing costs, which is the key to the commercialization of plant cell culture pro cesses. The recent achievements in related biochemical engineering studies are reviewed in Chapter 1. The effect of gaseous compounds on plant cell behavior has been little studied, and Chapter 2 focuses on these gas concentration effects (including oxygen, carbon dioxide, ethylene and others, such as volatile hor mones like methyl jasmonate) on secondary metabolite production by plant cell cultures. Two metabolites of current interest, i. e. , the antimalarial artemisinin (known as "qing hao su" in China) that is produced by Artemisia annua (sweet wormwood) and taxanes used for anticancer therapy that are produced by species of Taxus, are taken as examples. Bioprocess integration is another hot topic in plant cell culture technology. Because most of the plant secondary meta bolites are toxic to the cells at high concentrations during the culture, removal of the product in situ during the culture can lead to the enhanced productivity. Various integrated bioprocessing techniques are discussed in Chapter 3.

Laboratory culture. Nutrition and metabolism. Secondary metabolism and biotransformation. Selection of plant cell lines which accumulate compounds. Storage of plant cell lines. Environmental factors. Light. Temperature, aeration and pH. Mass culture systems for plant cell suspensions. Industrial and government research. Product cost analysis. Products.