Results 21 to 30 of about 67,814 (281)

Isolation of a transcriptionally active element of high copy number retrotransposons in sweetpotato genome [PDF]

, 2004
Many plant retrotransposons have been characterized, but only three families (Tnt1, Tto1 and Tos17) have been demonstrated to be transpositionally competent.
Aoki, Takahiro, Kokumai, Shuhei, Matsunaga, Sachi, Suzuka, Shinya, Tahara, Makoto, Tanaka, Masaru, Yamashita, Hiroki   +6 more
core   +1 more source

Retrotransposons [PDF]

Current Biology, 2012
June 27, 1970 was a significant day for our understanding of both the flow of information in biological systems and the evolution of eukaryotic genomes as this was the day that Nature published back-to-back papers reporting the discovery of an enzyme that copies RNA into DNA. This soon became known as reverse transcriptase and the RNA tumour viruses in
openaire   +2 more sources

Defending the genome from the enemy within:mechanisms of retrotransposon suppression in the mouse germline [PDF]

, 2013
The viability of any species requires that the genome is kept stable as it is transmitted from generation to generation by the germ cells. One of the challenges to transgenerational genome stability is the potential mutagenic activity of transposable ...
A Aravin, A Dupressoir, A Dupressoir, A Dupressoir, A Fadloun, A Inagaki, A Inoue, A Inoue, A Meissner, A Prokhortchouk, A Puech, A Sookdeo, A Tsumura, A Vourekas, AA Aravin, AA Aravin, AA Aravin, AA Zabolotneva, AE Peaston, AR Muotri, AR Muotri, B Hendrich, BH Schrans-Stassen, C Chen, C Lu, C Popp, C-X Song, C-X Song, CE Nestor, CG Lian, CM Davis, CP Walsh, D Bourc’his, D Bourc’his, D Branciforte, D Guallar, D Haig, D Lucifero, D Lucifero, D Reiss, D Ribet, D Ribet, D Ribet, D Sproul, D Wolf, D Wolf, DA Kramerov, DC Hancks, DJ Lees-Murdock, DM Maatouk, Donncha S. Dunican, DS Dunican, DT Ting, E Beyret, E Beyret, E Khazina, E Li, EB Chuong, EL Kuff, ES Lander, F Santos, F Yang, FD Araujo, G Hutvagner, G Velasco, GD Evrony, H Cedar, H Cedar, H Heyn, H Kano, H Khan, H Kobayashi, H Stroud, HJ Cooke, HM Rowe, HM Rowe, HM Rowe, I Cantone, I Martín Caballero, I Suetake, IA Maksakova, Ian R. Adams, J Borgel, J Brennecke, J Chen, J Gimenez, J Lange, J Reichmann, J Reichmann, J Rossant, J Sharif, J Xiol, J-H Ng, JA Hackett, JA Hackett, JA Yoder, James H. Crichton, JD Lewis, JK Baillie, JL Garcia-Perez, JL Goodier, JN Athanikar, JO Kriegs, JP Reddington, JP Reddington, JP Thomson, JP Thomson, JV Moran, K Dennis, K Hata, K Hayashi, K Hisada, K Kurimoto, K Myant, K Zheng, K Zheng, KP Koh, L Jackson-Grusby, L Ma, L Piko, L Shen, L-Q Sun, LK Hutnick, M Abe, M Chotalia, M Denne, M Dewannieux, M Dewannieux, M Dewannieux, M Freitag, M Kaneda, M Kaneda, M Ko, M Ko, M Leeb, M Okano, M Reuter, M Reuter, M Ruggiu, M Saitou, M Shoji, M Tachibana, M Tahiliani, M Weber, M Wiench, M Xu, MA Carmell, Marie MacLennan, MC Ward, MM Dawlaty, MM Dawlaty, MM Karimi, MT Romanish, N Bannert, N Gilbert, N Lane, N Mathioudakis, N Reynolds, N Yang, N Zamudio, OH Tam, P Hajkova, P Hajkova, PJ Skene, Q Feng, Q Yan, R Brunmeir, R Burdick, R Fuente De La, R Illingworth, R Lister, R Rebollo, R Shukla, R Yaman, R Öllinger, RH Waterston, Richard R. Meehan, RJ DeBerardinis, RJA Frost, RR Meehan, S Chuma, S Fazio De, S Guibert, S Ito, S Ito, S Kagiwada, S Kaufmann, S Kuntz, S Kuramochi-Miyagawa, S Kuramochi-Miyagawa, S Kuramochi-Miyagawa, S Kuramochi-Miyagawa, S Mi, S Milutinovic, S Salle La, S Schütt, S Seisenberger, S Solyom, S Takebayashi, S Yamaguchi, S-H Lee, SA Smallwood, SA Trelogan, SB Rothbart, SFC Soper, SK Mahadevaiah, SL Martin, SL Martin, SL Martin, SL Mathias, SP Sripathy, SS Tanaka, ST Grivna, T Matsui, T Singer, T Tanaka, T Watanabe, T Watanabe, T Watanabe, T-P Gu, TS Macfarlan, UM Galli, V Chapman, VV Vagin, W Deng, W Filipowicz, W Seifarth, W Wei, W Yan, WA Pastor, X Cai, X Nan, Y Kato, Y Seki, Y Tao, Y Unhavaithaya, Y Yabuta, Y Yotsuyanagi, Y-Q Su, Z Li, ZD Smith, ZD Smith   +241 more
core   +2 more sources

An extracellular vesicle targeting ligand that binds to Arc proteins and facilitates Arc transport in vivo

eLife, 2023
Communication between distant cells can be mediated by extracellular vesicles (EVs) that deliver proteins and RNAs to recipient cells. Little is known about how EVs are targeted to specific cell types.
Peter H Lee, Michael Anaya, Mark S Ladinsky, Justin M Reitsma, Kai Zinn   +4 more
doaj   +1 more source

Occurrence of LINE, gypsy-like, and copia-like retrotransposons in the clonally propagated sweet potato (Ipomoea batatas L.) [PDF]

, 2011
Retrotransposons are a class of transposable elements that represent a major fraction of the repetitive DNA of most eukaryotes. Their abundance stems from their expansive replication strategies.
Dieters, Mark, Godwin, Ian, Harding, Rob, Okpul, Tom   +3 more
core   +2 more sources

Microarray analysis of LTR retrotransposon silencing identifies Hdac1 as a regulator of retrotransposon expression in mouse embryonic stem cells.

PLoS Computational Biology, 2012
Retrotransposons are highly prevalent in mammalian genomes due to their ability to amplify in pluripotent cells or developing germ cells. Host mechanisms that silence retrotransposons in germ cells and pluripotent cells are important for limiting the ...
Judith Reichmann, James H Crichton, Monika J Madej, Mary Taggart, Philippe Gautier, Jose Luis Garcia-Perez, Richard R Meehan, Ian R Adams   +7 more
doaj   +1 more source

Retrotransposon silencing by DNA methylation can drive mammalian genomic imprinting [PDF]

, 2015
Among mammals, only eutherians and marsupials are viviparous and have genomic imprinting that leads to parent-of-origin-specific differential gene expression. We used comparative analysis to investigate the origin of genomic imprinting in mammals. PEG10 (
Alsop, Amber, Graves, Jennifer, Ishino, Fumitoshi, Kaneko-Ishino, Tomoko, Kohara, Yuji, Kohda, Takashi, Narita, Takanori, Ono, Ryuichi, Pask, Andrew J, Renfree, Marilyn B, Shaw, Geoffrey, Suzuki, Shunsuke, Wang, Changshan   +12 more
core   +1 more source

Roles for retrotransposon insertions in human disease

Mobile DNA, 2016
Over evolutionary time, the dynamic nature of a genome is driven, in part, by the activity of transposable elements (TE) such as retrotransposons. On a shorter time scale it has been established that new TE insertions can result in single-gene disease in
Dustin C. Hancks, H. Kazazian
semanticscholar   +1 more source

Comparative retrotransposon analysis of mutant and non-mutant rice varieties grown at different salt concentrations

Biotechnology & Biotechnological Equipment, 2022
This study investigated the effects of retrotransposon movements on the regeneration of 15- and 30-day-old leaves and roots of four different rice varieties grown in tissue culture medium at different salt concentrations (0, 50, 100, and 200 mmol/L) by ...
Yunus Emre Arvas, İsmail Kocaçalışkan, Emel Ordu, Semiha Erişen   +3 more
doaj   +1 more source

Application of iPBS in high-throughput sequencing for the development of retrotransposon-based molecular markers

Current Plant Biology, 2014
Retrotransposons are major components of higher plant genomes, and long terminal repeat (LTR) retrotransposons are especially predominant. Thus, numerous LTR retrotransposon families with high copy numbers exist in most plant genomes.
Yuki Monden, Kentaro Yamaguchi, Makoto Tahara   +2 more
doaj   +1 more source