Results 51 to 60 of about 108,329 (92)

Cilia, calcium and the basis of left-right asymmetry

BMC Biology, 2012
The clockwise rotation of cilia in the developing mammalian embryo drives a leftward flow of liquid; this genetically regulated biophysical force specifies left-right asymmetry of the mammalian body.
Norris Dominic P
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Dynamics of 5-methylcytosine and 5-hydroxymethylcytosine during pronuclear development in equine zygotes produced by ICSI [PDF]

, 2017
Background: Global epigenetic reprogramming is considered to be essential during embryo development to establish totipotency. In the classic model first described in the mouse, the genome-wide DNA demethylation is asymmetric between the paternal and the ...
De Schauwer, Catharina, Heras Garcia, Sonia, Smits, Katrien, Van Soom, Ann   +3 more
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The Regulation and Functions of Endogenous Retrovirus in Embryo Development and Stem Cell Differentiation

Stem Cells International, 2021
Endogenous retroviruses (ERVs) are repetitive sequences in the genome, belonging to the retrotransposon family. During the course of life, ERVs are associated with multiple aspects of chromatin and transcriptional regulation in development and ...
Yangquan Xiang, Hongqing Liang
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The signal that stimulates mammalian embryo development

Frontiers in Cell and Developmental Biology
Embryo development is stimulated by calcium (Ca2+) signals that are generated in the egg cytoplasm by the fertilizing sperm. Eggs are formed via oogenesis.
Zoltan Machaty
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Comparison of the Zebrafish Embryo Toxicity Assay and the General and Behavioral Embryo Toxicity Assay as New Approach Methods for Chemical Screening

Toxics, 2020
The movement away from mammalian testing of potential toxicants and new chemical entities has primarily led to cell line testing and protein-based assays.
John C. Achenbach, Cindy Leggiadro, Sandra A. Sperker, Cindy Woodland, Lee D. Ellis   +4 more
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Molecular and cellular mechanisms underlying the evolution of form and function in the amniote jaw. [PDF]

, 2019
The amniote jaw complex is a remarkable amalgamation of derivatives from distinct embryonic cell lineages. During development, the cells in these lineages experience concerted movements, migrations, and signaling interactions that take them from their ...
A Abzhanov, A Abzhanov, A Abzhanov, A Baggiolini, A Baroffio, A Beverdam, A Chevallier, A Davidian, A del Rio, A Graham, A Graham, A Hosseini, A Rinon, A Roycroft, A Sharir, A Shellard, A Subramanian, AA Pitsillides, AE Adams, AE Merrill, AG Robling, AG Robling, AH Jheon, AJ Hughes, AL Romanoff, AL Tavares, ALP Tavares, AM Bailleul, AM Bailleul, AM Lucas, AS Pollard, AS Romer, AS Romer, AS Tucker, AS Tucker, AW Crompton, AW Crompton, B Christ, B McBratney-Owen, B Ruhin, BA Moore-Scott, BD Matthews, BF Eames, BF Eames, BF Kingsbury, BK Hall, BK Hall, BK Hall, BK Hall, BK Hall, BK Hall, BK Hall, BK Hall, BK Hall, BK Hall, BK Hall, BL Pruitt, C Attanasio, C Gans, C Gegenbaur, C Holliday, C Mitgutsch, C Patterson, C Reichert, CI Lorda-Diez, CL Hammond, CS Le Lievre, CS Le Lièvre, CT Miller, CV Baker, CV Baker, CW Benkman, CW Benkman, D Hu, D Hu, D Hu, D Hu, D Noden, DD Davis, DE Clouthier, DG Wilkinson, DJ Evans, DL Stemple, DM Noden, DM Noden, DM Noden, DM Noden, DM Noden, DM Noden, DM Noden, DM Noden, DM Noden, DM Noden, DM Noden, DM Noden, DR Carter, DR Cordero, E Berthet, E Blitz, E Blitz, E Dupin, E Gaupp, E Jarvik, E Theveneau, E Tzahor, E Tzahor, E Zelzer, EC Olesnicky Killian, EF Allin, EL Ealba, EM Sefton, EP Allis, EP Allis, EP Allis, ER Lankester, ES Goodrich, ES Goodrich, ES Russell, F Lescroart, F Liu, FJ Smith, FL Landacre, FV Jotereau, FW Chamberlain, G Andres, G Balooch, G Couly, G Couly, G Couly, G Kardon, G Kardon, G Köntges, G Wagner, G Zweers, GA Zweers, GA Zweers, GA Zweers, GB Muller, GF Couly, GF Couly, GM Morriss-Kay, GR de Beer, GR de Beer, GR de Beer, H Vinkka, HB Shaffer, HJ Chong, HL Hamilton, HL Szabo-Rogers, HP Shih, I Bothe, I Raizman, I Rot-Nikcevic, J Apostolakos, J Fang, J Grenier, J Hall, J Jeong, J Kahn, J Ruberte, J Stutzmann, JA Helms, JB Gross, JB Platt, JF Webb, JJ Baumel, JJ Schoenebeck, JJ Schoenebeck, JL Chang, JL Fish, JL Fish, JL Fish, JL Fish, JM Brito, JM Richman, JM Tabler, JN Thompson, JP Golding, JR Merida-Velasco, JR Merida-Velasco, JR Robbins, JS Kingsley, JW Kingsbury, K Hayashi, K Sheehan-Rooney, K Yasui, KC Woronowicz, KC Wu, KE Haworth, KJ Lamb, KK Smith, KK Smith, KK Smith, KK Smith, KS Thomson, KW Li, KW Tosney, L LeResche, L Olsson, L Ramage, LB Ruest, LS Gammill, LS Stone, LS Stone, M Bancroft, M Benjamin, M Bronner-Fraser, M Bronner-Fraser, M Hoso, M Jollie, M Jollie, M Jollie, M Jollie, M Linde-Medina, M Minoux, M Persson, M Qiu, M Qiu, M Sieber-Blum, M Simoes-Costa, M Takechi, M Tokita, M Tokita, MA Selleck, MA Shkoukani, MAJ Selleck, MJ Depew, MJ Depew, MJ Depew, MJ Depew, ML Martik, ML Moss, ML Moss, MM Dawson, MM Smith, MM Smith, MN Spyropoulos, MR Sanchez-Villagra, MR Sánchez-Villagra, MS Tyler, MSY Lee, N Anthwal, N Anthwal, N Anthwal, N Wang, NC Jones, NJ Giori, NM Young, NM Young, NN Soni, NS Bradley, O Campas, O Rieppel, OP Hamill, P Betancur, P Danaisawadi, P Hunt, P Kissel, P Kulesa, P Murray, P Murray, P Thorogood, P Wu, P Wu, PA Trainor, PA Trainor, PA Trainor, PA Trainor, PA Trainor, PA Trainor, PA Trainor, PD Henion, PDF Murray, PH Francis-West, PS Verma, PY Lwigale, R Cerny, R Derynck, R Diogo, R Luo, R Mallarino, R McBeath, R McLennan, R McLennan, R Owen, R Owen, R Presley, R Presley, R Sambasivan, R Sambasivan, R Schweitzer, RA Schneider, RA Schneider, RA Schneider, RA Schneider, RA Schneider, RA Schneider, RA Schneider, RA Schneider, RA Schneider, RA Yuodelis, RC Garcez, RC Mootoosamy, RC Solem, RG Harrison, RG Northcutt, RG Northcutt, RJ Gorlin, RL Carroll, RL Zusi, RW Oppenheim, RW Oppenheim, RW Oppenheim, RW Shufeldt, S Alappat, S Amin, S Creuzet, S Dupont, S Ekanayake, S Hörstadius, S Kavumpurath, S Krispin, S Kuraku, S Kuratani, S Kuratani, S Kuratani, S Kuratani, S Kuratani, S Kuratani, S Kuratani, S Lamichhaney, S Lautenschlager, S Lautenschlager, S Murakami, S Shibata, S Tajbakhsh, S Thomopoulos, S Wadhwa, SC Ahlgren, SC Ahlgren, SH Lee, SH Reynolds, SJ Gould, SJ Mathew, SL Horowitz, SL Prescott, SL Washburn, SR Roberts, SW Herring, T Hems, T Hirasawa, T Kantomaa, T Maeda, T Mammoto, T Matsuoka, T Miyashita, T Rowe, T Sato, T Sauka-Spengler, T Sauka-Spengler, T Square, T Thomas, T Yoshida, TA Appel, TA Mitsiadis, TA Mitsiadis, TC Fitzgerald, TE Parsons, TG Boyd, TH Huxley, TH Huxley, TL Vincent, V Govindarajan, V Hamburger, V Hamburger, V Shone, VL Naples, W Maier, WA Beresford, WA Beresford, WE Reif, WF Van den Heuvel, WG Hall, WJ Moore, WJ Moore, WK Parker, WM McLeod, X Jiang, X Li, XL Tu, Y Hashimoto, Y Shigetani, Y Shigetani, Y Shwartz, Y Song, Y Sugimoto   +395 more
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A multiscale model via single-cell transcriptomics reveals robust patterning mechanisms during early mammalian embryo development.

PLoS Computational Biology, 2021
During early mammalian embryo development, a small number of cells make robust fate decisions at particular spatial locations in a tight time window to form inner cell mass (ICM), and later epiblast (Epi) and primitive endoderm (PE).
Zixuan Cang, Yangyang Wang, Qixuan Wang, Ken W Y Cho, William Holmes, Qing Nie   +5 more
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Programmed cell death and genetic stability in conifer embryogenesis [PDF]

, 2007
Somatic embryogenesis, the generation of embryos from somatic cells, is a valuable tool for studying embryology. In addition, somatic embryos can be used for large-scale vegetative propagation, an application of great interest for forestry.
Helmersson, Andreas
core  

Regulation of Microtubule Dynamics in Axon Regeneration: Insights from C. elegans. [PDF]

, 2016
The capacity of an axon to regenerate is regulated by its external environment and by cell-intrinsic factors. Studies in a variety of organisms suggest that alterations in axonal microtubule (MT) dynamics have potent effects on axon regeneration.
CHISHOLM, Andrew, Tang, Ngang
core   +2 more sources

Protocadherin-1 is expressed in the notochord of mouse embryo but is dispensable for its formation

Biochemistry and Biophysics Reports, 2021
Notochord is an embryonic midline structure that serves as mechanical support for axis elongation and the signaling center for the surrounding tissues.
Kanako Fukunaga, Masafumi Tanji, Nana Hanzawa, Hiroki Kuroda, Masafumi Inui   +4 more
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