Constructing the landscape of the mammalian transcriptome

被引:28
|
作者
Carninci, Piero [1 ]
机构
[1] RIKEN, Yokohama Inst, Lab Genome Explorat Res Grp, Genom Sci Ctr, Yokosuka, Kanagawa 2300045, Japan
来源
JOURNAL OF EXPERIMENTAL BIOLOGY | 2007年 / 210卷 / 09期
关键词
transcriptome; full-length cDNA; mRNA; non-coding RNA; genomics;
D O I
10.1242/jeb.000406
中图分类号
Q [生物科学];
学科分类号
07 ; 0710 ; 09 ;
摘要
The principal route to understanding the biological significance of the genome sequence comes from discovery and characterization of that portion of the genome that is transcribed into RNA products. We now know that this `transcriptome' is unexpectedly complex and its precise definition in any one species requires multiple technical approaches and an ability to work on a very large scale. A key step is the development of technologies able to capture snapshots of the complexity of the various kinds of RNA generated by the genome. As the human, mouse and other model genome sequencing projects approach completion, considerable effort has been focused on identifying and annotating the protein- coding genes as the principal output of the genome. In pursuing this aim, several key technologies have been developed to generate large numbers and highly diverse sets of full-length cDNAs and their variants. However, the search has identified another hidden transcriptional universe comprising a wide variety of non-protein coding RNA transcripts. Despite initial scepticism, various experiments and complementary technologies have demonstrated that these RNAs are dynamically transcribed and a subset of them can act as sense - antisense RNAs, which influence the transcriptional output of the genome. Recent experimental evidence suggests that the list of non-protein coding RNAs is still largely incomplete and that transcription is substantially more complex even than currently thought.
引用
下载
收藏
页码:1497 / 1506
页数:10
相关论文
共 50 条
  • [31] Constructing the mammalian neocortex: the role of intrinsic factors
    Job, C
    Tan, SS
    DEVELOPMENTAL BIOLOGY, 2003, 257 (02) : 221 - 232
  • [32] Building Principles for Constructing a Mammalian Blastocyst Embryo
    Pfeffer, Peter L.
    BIOLOGY-BASEL, 2018, 7 (03): : 41
  • [33] The Dimensions, Dynamics, and Relevance of the Mammalian Noncoding Transcriptome
    Deveson, Ira W.
    Hardwick, Simon A.
    Mercer, Tim R.
    Mattick, John S.
    TRENDS IN GENETICS, 2017, 33 (07) : 464 - 478
  • [34] Caneja: Constructing the dream landscape (Contemporary painting)
    d'Ors Fuhrer, C
    GOYA, 1998, (265-66): : 250 - 256
  • [35] Constructing an Energy Landscape for the Hybridization of Short Oligonucleotides
    Whitley, Kevin
    Comstock, Matthew J.
    Chemla, Yann R.
    BIOPHYSICAL JOURNAL, 2013, 104 (02) : 262A - 262A
  • [36] The Translational Landscape of the Mammalian Cell Cycle
    Stumpf, Craig R.
    Moreno, Melissa V.
    Olshen, Adam B.
    Taylor, Barry S.
    Ruggero, Davide
    MOLECULAR CELL, 2013, 52 (04) : 574 - 582
  • [37] Charting the functional landscape of the mammalian genome
    Magdalena Skipper
    Nature Reviews Genetics, 2006, 7 : 413 - 413
  • [38] Characterization of the mammalian miRNA turnover landscape
    Guo, Yanwen
    Liu, Jun
    Elfenbein, Sarah J.
    Ma, Yinghong
    Zhong, Mei
    Qiu, Caihong
    Ding, Ye
    Lu, Jun
    NUCLEIC ACIDS RESEARCH, 2015, 43 (04) : 2326 - 2341
  • [39] Mapping the Phosphoinositide Landscape in Mammalian Cells
    Balla, Tamas
    BIOPHYSICAL JOURNAL, 2011, 100 (03) : 26 - 26
  • [40] Transcriptome landscape of the early Brassica napus seed
    Dylan J.Ziegler
    Deirdre Khan
    Jenna L.Kalichuk
    Michael G.Becker
    Mark F.Belmonte
    Journal of Integrative Plant Biology, 2019, 61 (05) : 639 - 650