Titlebook: Cold-adapted Yeasts; Biodiversity, Adapta Pietro Buzzini,Rosa Margesin Book 2014 The Editor(s) (if applicable) and The Author(s), under exc

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Service Science and Sustainability,ty, and has an average water temperature between −1 and 4 °C in most areas of deep sea. Living organisms in deep sea are considered to be adapted to cold environments. Yeast diversity commonly found in deep sea is represented by . spp., . spp., . spp., . spp., . spp., . spp., and . spp. This represe

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K. Thirumaran,Dirk Klimkeit,Chun Meng Tangive. Ultraviolet radiation (UVR) is one of these factors and only microorganisms bearing photo-protective defence mechanisms colonize environments exposed to high UVR levels. In yeasts collected from Patagonia, among other cold environments, secondary metabolites such as carotenoids and mycosporines

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Zusammenfassende Bewertung der Ergebnisse,s may protect cell membranes from freezing injury via the inhibition of ice recrystallization, thereby increasing the survival of psychrophilic microorganism at sub-zero temperatures. Screening of antifreeze activity showed that the occurrence of yeast AFPs was limited to basidiomycetous psychrophil

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Experiential Self-Service Systems,uses on a recently discovered physiological phenomenon of microbial growth and metabolism in a frozen environment cooled down to −20 °C and deeper. Still, there are numerous controversies about subzero activity (SZA); therefore, the chapter starts from extensive introduction into the SZA phenomenon