2) proliferation of yeast cells
酵母细胞增殖
3) Immobilized growing yeast
固定增殖酵母
4) Fission yeast
裂殖酵母
1.
cerevisiae belong to ascumycte fungi,but compared to other yeasts,it has more features in common with higher eukaryote,making fission yeast S.
虽然裂殖酵母与酿酒酵母同属于子囊真菌,但比其它的酵母相比,裂殖酵母与更高等的真核细胞有许多相似的性质,使得裂殖酵母在分子生物学研究中成为一种提供信息的、准确的真核实验模型。
2.
In model organism fission yeast,Schizosaccharomyces pombe,100-200 rDNA gene copies are located on both left and right ends of chromosomeⅢ.
在模式生物裂殖酵母(fission yeast,Schizosaccharomyces pombe)基因组中,100-200拷贝的rDNA基因分布在Ⅲ号染色体左右两端的末端附近。
3.
Overexpression of cotton, vacuolar H~+-ATPase subunit C promotes cell elongation and regulates stress tolerance in fission yeast;
为了快速鉴定棉花液泡H+-ATPaseC亚基基因(GhDET3)的功能和推测其在棉花纤维生长中的作用,作者构建了GhDET3的酵母表达载体pREP5N(+)-GhDET3,并进行了裂殖酵母的遗传转化。
5) Schizosaccharomyces pombe
裂殖酵母
1.
Expression of Thanatin inSchizosaccharomyces pombe;
死亡素在裂殖酵母中的表达
2.
two recombinant plasmids and pREP-GFP were transformed into yeast(Schizosaccharomyces pombe,leu-) cells.
这两种表达质粒和pREP-GFP同时转化亮氨酸缺陷型裂殖酵母。
3.
The fission yeastSchizosaccharomyces pombe is a single cell eukaryotic organism.
利用拟南芥cDNA文库在裂殖酵母中的功能性表达 ,从拟南芥中分离了一个编码富甘氨酸蛋白 (glycine richprotein ,GRP)的cDNA克隆 (其基因被命名为AtGRP9)。
6) budding yeast
芽殖酵母
1.
Mechanisms of asymmetric cell division: Asymmetric mating type switch in budding yeast;
细胞不对称分裂机制——芽殖酵母接合型不对称转换
2.
Using the basic concepts of nonlinear science we have studied the cell cycle network dynamics of budding yeast.
文章通过用非线性科学的基本概念与系统方法分析了芽殖酵母细胞周期网络的动力学行为,说明非线性科学在定量研究生命过程所可能起到的重要作用,同时说明非线性科学现有的分析手段在研究生命系统中的局限性。
3.
Based on recent studies of budding yeast and other related literature, we have established the protein network governing the cell cycle and life cycle processes.
基于芽殖酵母 (bud dingyeastsaccharomycescerevisiae)的蛋白质 -蛋白质相互作用网络数据和相关的实验文献 ,我们建立了调控细胞周期和生命周期 (cellcycleandlifecycle)的蛋白质网络 ,并利用离散模型研究了该网络的动力学性质 。
补充资料：贝克氏酵母菌