| 查看: 3872 | 回复: 68 | |||||
| 当前只显示满足指定条件的回帖,点击这里查看本话题的所有回帖 | |||||
[交流]
【2013-12-31】Frontiers in Microbiology专刊征稿【SCIE】
|
|||||
DNA Replication Origins in Microbial Genomes 导师主持的专刊,如有合适的工作,欢迎各位投稿。如有兴趣,可站内信联系。 http://www.frontiersin.org/evolu ... origins_in_mic/2193 In collaboration with Frontiers in Microbiology, we are organizing a Research Topic titled "DNA Replication Origins in Microbial Genomes”. Frontiers, a Swiss open-access publisher, recently partnered with Nature Publishing Group to expand its researcher-driven Open Science platform. Frontiers articles are rigorously peer-reviewed, can be disseminated freely and are widely read by your colleagues and by the broader scientific and medical research communities. Research Topic DNA replication, a central event for cell proliferation, is the basis of biological inheritance. Complete and accurate DNA replication is integral to the maintenance of the genetic integrity of organisms. In all three domains of life, DNA replication begins at replication origins. In bacteria, replication initiates from a single replication origin (oriC), which contains several DnaA boxes. In eukaryotic genomes, replication initiates from significantly more replication origins, ranging from hundreds in yeast to tens of thousands in human, activated simultaneously at a specific time. For eukaryotic organisms, replication origins are best characterized in the unicellular eukaryote budding yeast Saccharomyces cerevisiae and the fission yeast Schizosaccharomyces pombe. The budding yeast origins contain an essential sequence element called the ARS (autonomously replicating sequence), while the fission yeast origins consist of AT-rich sequences. Within the archaeal domain, the multiple replication origins have been identified by a predict-and-verify approach in the hyperthermophilic archaeon Sulfolobus. Archaeal origins contain two or more short repetitive DNA sequences, known as origin recognition boxes (ORBs). It appears that archaea have a simplified version of the eukaryotic replication apparatus, which has led to considerable interest in the archaeal machinery as a model of that in eukaryotes. The identification of replication origins is important not only in providing insights into the structure and function of the replication origins but also in understanding the regulatory mechanisms of the initiation step in DNA replication. Therefore, intensive studies have been carried out on the identification of replication origins in the last two decades. The pioneer work to identify bacterial oriCs in silico is the GC-skew analysis. Later, a method of cumulative GC skew without sliding windows was proposed to give better resolution. Meanwhile, an oligomer-skew method was also proposed to predict oriC regions in bacterial genomes. As a unique representation of a DNA sequence, the Z-curve method has been proved to be an accurate and effective approach to predict bacterial and archaeal replication origins. Budding yeast origins have been predicted by Oriscan using similarity to the characterized ones, while the fission yeast origins have been indentified initially from AT content calculation. In comparison with the in silico analysis, the experimental methods are convincing and reliable, but time-consuming and labor-intensive. The microbial replication origins can be identified by several experimental methods including construction of replicative oriC plasmids, microarray-based or high-throughput sequencing-based marker frequency analysis, two-dimensional gel electrophoresis analysis and replication initiation point mapping (RIP mapping) etc. The recent genome-wide approaches to identify and characterize replication origin locations have boosted the number of mapped yeast replication origins. The availability of increasing complete microbial genomes and emerging approaches has created challenges and opportunities for identification of their replication origins in silico, as well as in vivo. This research topic invites for the studies of microbial replication origins, addressing all the issues mentioned above, by in silico analyses as well as in vivo experiments. Manuscripts describing original research, methods, opinions, reviews are all welcome, which would provide a comprehensive overview of this field. [ Last edited by 流风易逝 on 2013-11-4 at 12:03 ] |
» 猜你喜欢
博士申请都是内定的吗?
已经有7人回复
读博
已经有5人回复
之前让一硕士生水了7个发明专利,现在这7个获批发明专利的维护费可从哪儿支出哈?
已经有5人回复
博士读完未来一定会好吗
已经有29人回复
投稿精细化工
已经有4人回复
高职单位投计算机相关的北核或SCI四区期刊推荐,求支招!
已经有4人回复
导师想让我从独立一作变成了共一第一
已经有9人回复
心脉受损
已经有5人回复
Springer期刊投稿求助
已经有4人回复
小论文投稿
已经有3人回复
» 抢金币啦!回帖就可以得到:
哈工深国家级青年人才王龙龙教授团队—诚招新能源电池方向博士和硕士研究生
+1/175
桂林理工大学材料科学与工程学院诚聘青年教师
+1/118
西班牙巴塞罗那自治大学 招收生物学博士 CSC
+1/87
香港科技大学 Abhishek Kumar Srivastava 教授课题组 招收博士生
+1/85
90年魔蝎男,想找靠谱、踏实的另一半
+1/65
招聘陶瓷材料方向博后
+1/34
校长团队招博士生和博士后
+1/31
华北电力大学机械工程系输电线路工程方向招聘优秀青年人才或师资博士后
+2/28
山东大学机械工程学院“先进加工装备”课题组博士招生
+1/27
2026年博士招生--北京理工大学交叉学科(航空,力学,能动,计算机等方向)
+1/25
坐标广州,征女友
+2/20
SCI文章辅助,计算机网络通信方向
+1/19
香港城市大学软物质课题组现招收博士研究生
+1/15
南京大学自旋全国重团队陆显扬课题组招聘博士后
+2/14
香港城市大学招聘博士后 (有机合成/催化/流动化学)
+1/13
博士/硕士招生
+1/9
浙江工业大学朱艺涵优青团队“能源电池/催化电镜表征与材料创制”招收2026年博士生
+1/9
香港顶级研究型大学。招聘硕士、博士、博士后,研究助理
+1/8
美国犹他大学-采矿工程系-全奖硕士/博士招生
+1/4
华中农业大学生命科学技术学院 “酶智能设计与农药生物合成”课题组招聘启事
+1/1
67楼2015-01-28 10:46:23
69楼2015-01-28 16:27:50




回复此楼