Titlebook: Dimorphic Fungi in Biology and Medicine; Hugo Bossche,Frank C. Odds,David Kerridge Book 1993 Springer Science+Business Media New York 1993

易弯曲

Key Genes in the Regulation of Dimorphism of ,nd methodologies related to this work and describe two contrasting strategies that we are using in the analysis of genes related to dimorphism. The disruption of a hypha-specific chitin synthase gene is described using a method that is well suited to work with this genetically recalcitrant organism.

KEGEL

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汇总

HIKE

Mathematical Analysis of the Cellular Basis of Fungal Dimorphismenetically critical factors: the amount of wall-building vesicles produced per unit time and the rate of advance of the VSC (vesicle supply center). The ./N ratio describes the essence of vesicle dynamics of the cell. High values determine a hyphal morphology; low values, a yeast cell morphology. Ma

LIKEN

Quantification of , Morphology , and ,eans that experiments designed to study molecular processes possibly related to morphology depend on subjective descriptions of morphological form and are often biased to the use of growth environments that favor development of the fungus at the morphological extremes of true hyphae and of yeast for

骇人

Nature and Control of Cell Wall Biosynthesis important in cell adhesion, cell shape maintenance and as a barrier to metabolites and drugs. The outer fuzzy layer of the wall is composed of proteins and mannoproteins and is involved in pathogenicity, phagocytosis and adherence. The exoskeleton is composed of polymers producing a scaffold that i

Spina-Bifida

Possible Roles of Mannoproteins in the Construction of , Cell Wallre the case, the wall mannoproteins might form part of what could be called a “morphogenetic code”..Experimental results obtained have shown that the wall mannoproteins of both yeast and mycelial cells may be grouped in two families; i)mannoproteins of high molecular weight, rich in mannan and ii) m

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