Yeast Metabolic Engineering: Methods and Protocols provides the widely established basic tools used in yeast metabolic engineering, while describing in deeper detail novel and innovative methods that have valuable potential to improve metabolic engineering strategies in industrial biotechnology applications. Beginning with an extensive section on molecular tools and technology for yeast engineering, this detailed volume is not limited to methods for Saccharomyces cerevisiae, but describes tools and protocols for engineering other yeasts of biotechnological interest, such as Pichia pastoris, Hansenula polymorpha and Zygosaccharomyces bailii. Tools and technologies for the investigation and determination of yeast metabolic features are described in detail as well as metabolic models and their application for yeast metabolic engineering, while a chapter describing patenting and regulations with a special glance at yeast biotechnology closes the volume. Written in the highly successful Methods in Molecular Biology series format, most chapters include an introduction to their respective topic, lists of the necessary materials and reagents, step-by-step, readily reproducible laboratory protocols and tips on troubleshooting and avoiding known pitfalls. Comprehensive and authoritative, Yeast Metabolic Engineering: Methods and Protocols aims to familiarize researchers with the current state of these vital and increasingly useful technologies.

Methods in Yeast Genetics is a course that has been offered annually at Cold Spring Harbor Laboratory for the last 45 years. This is an updated edition of the course manual, which provides a set of teaching experiments, along with protocols and recipes for the standard techniques and reagents used in the study of yeast biology. Since the last edition of the manual was published (2005), revolutionary advances in genomics, proteomics, and imaging technologies have had a significant impact on the field. The 11 experiments included in this manual provide a foundation of methods for any modern-day yeast lab. These methods emphasize combinations of classical and modern genetic approaches, including isolation and characterization of mutants, two-hybrid analysis, tetrad analysis, complementation, and recombination. Also covered are molecular genetic techniques for genome engineering. Additional experiments introduce fundamental techniques in yeast genomics, including both performance and interpretation of Synthetic Genetic Array analysis, multiplexed whole genome and barcode sequencing, and comparative genomic hybridization to DNA arrays. Comparative genomics is introduced using different yeast strains to study natural variation, evolution, and quantitative traits. This manual covers the full repertoire of genetic approaches needed to dissect complex biological problems in the yeast Saccharomyces cerevisiae.

I belie ve that the book would provide an overview of the recent developments in the domain of yeast research with some new ideas, which could serve as an inspiration and challenge for researchers in this field. Ne w Delhi Prof. Asis Datta Dec. 24, 2007 F ormer Vice-chancellor, JNU Director, NCPGR (New Delhi) Pr eface Yeasts are eukaryotic unicellular microfungi that are widely distributed in the natural environments. Although yeasts are not as ubiquitous as bacteria in the na- ral environments, they have been isolated from terrestrial, aquatic and atmospheric environments. Yeast communities have been found in association with plants, a- mals and insects. Several species of yeasts have also been isolated from specialized or extreme environments like those with low water potential (e. g. high sugar/salt concentrations), low temperature (e. g. yeasts isolated from Antarctica), and low oxygen availability (e. g. intestinal tracts of animals). Around 1500 species of yeasts belonging to over 100 genera have been described so far. It is estimated that only 1% of the extant yeasts on earth have been described till date. Therefore, global efforts are underway to recover new yeast species from a variety of normal and extreme environments. Yeasts play an important role in food chains, and carbon, nitrogen and sulphur cycles. Yeasts can be genetically manipulated by hybridization, mutation, rare m- ing, cytoduction, spheroplast fusion, single chromosomal transfer and transfor- tion using recombinant technology. Yeasts (e. g.

Nicholas Money gives us a history of our interactions with one of the most important organisms in the world--yeast.

Yeast Genetics: Methods and Protocols is a collection of methods to best study and manipulate Saccharomyces cerevisiae, a truly genetic powerhouse. The simple nature of a single cell eukaryotic organism, the relative ease of manipulating its genome and the ability to interchangeably exist in both haploid and diploid states have always made it an attractive model organism. Genes can be deleted, mutated, engineered and tagged at will. Saccharomyces cerevisiae has played a major role in the elucidation of multiple conserved cellular processes including MAP kinase signaling, splicing, transcription and many others. Written in the successful Methods in Molecular Biology series format, chapters include introductions to their respective topics, lists of the necessary materials and reagents, step-by-step, readily reproducible protocols and notes on troubleshooting and avoiding known pitfalls. Authoritative and easily accessible, Yeast Genetics: Methods and Protocols will provide a balanced blend of classic and more modern genetic methods relevant to a wide range of research areas and should be widely used as a reference in yeast labs.

"Methods in Yeast Genetics" is a course that has been offered annually at Cold Spring Harbor for the last 30 years. This provides a set of teaching experiments along with the protocols and recipes for the standard techniques and reagents used in the study of yeast biology.

This volume scopes several aspects of non-conventional yeast research prepared by the leading specialists in the field. An introduction on taxonomy and systematics enhances the reader’s knowledge on yeasts beyond established ones such as Saccharomyces cerevisiae. Biotechnological approaches that involve fungal utilization of unusual substrates, production of biofuels and useful chemicals as citric acid, glutathione or erythritol are discussed. Further, strategies for metabolic engineering based on knowledge on regulation of gene expression as well as sensing and signaling pathways are presented. The book targets researchers and advanced students working in Microbiology, Microbial Biotechnology and Biochemistry.

Yeast genetics began with Winge's 1935 studies of S. cerevisiae in Copenhagen, and afterwards was pursued by Lindegren in the U.S. and Ephrussi in France. Genetic studies in S. pombe were pioneered by Leupold in the 1940s in Switzerland. Within four decades, not without controversies, both yeast species were recognized as essential models in eukaryotic molecular cell biology. In this remarkable volume, Hall and Linder have assembled the reminiscences of many early investigators whose pioneering studies in the years before 1975 brought yeast biology to its current maturity. These illustrated essays about the science, the events and the personalities involved capture a fascinating era, in the informal style made famous by Phage and the Origins of Molecular Biology. This is a book that all scientists interested in the development of modern genetics and molecular biology should have on their shelves.

An illustration of the impressive development of yeast gene expression systems accomplished in recent years which demonstrates the power of these systems for the production of proteins in quantities useful as therapeutics, industrial enzymes and research agents.