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1-20 of 104256
Keywords: mTOR
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Journal Articles
In collection:
Cell Cycle
Marcelo S. da Silva, Marcela O. Vitarelli, Vincent Louis Viala, Katherine Tsantarlis, David da Silva Pires, Thiago A. Franco, Inacio L. M. J. de Azevedo, Maria Carolina Elias, Renata R. Tonelli
Journal:
Journal of Cell Science
J Cell Sci (2023) 136 (10): jcs260828.
Published: 30 May 2023
Includes: Supplementary data
Published: 30 May 2023
Images
Published: 30 May 2023
Fig. 1. Estimation of the replication rate and IOD in G. lamblia . (A) Representative images of the green tracks (from DNA combing) used to estimate the replication rate in G. lamblia . BGR, blue-green-red; RGB, red-green-blue; BGRGB, blue-green-red-green-blue. Scale bar: 20 µm. (B) Histogram ... More about this image found in Estimation of the replication rate and IOD in G. lamblia . (A) Representa...
Images
Published: 30 May 2023
Fig. 2. Updated estimation of S phase duration in G. lamblia . (A,B) Typical daily and hourly growth curves of G. lamblia trophozoites. The doubling time (dt) was confirmed by taking the values at the exponential phase and using Doubling Time software ( http://www.doubling-time.com ). Er... More about this image found in Updated estimation of S phase duration in G. lamblia . (A,B) Typical...
Images
Published: 30 May 2023
Fig. 3. G. lamblia uses on average 1.55 more origins than the minimum origin number required, which is less than other parasites. (A) Table summarizing the MO data from G. lamblia in our analysis. (B) Graph showing positive correlations between chromosome size and the number of origins estim... More about this image found in G. lamblia uses on average 1.55 more origins than the minimum origin numbe...
Images
Published: 30 May 2023
Fig. 4. Nuclei labeling patterns observed after a double pulse using halogenated thymidine analogs. (A) All nuclei labeling patterns observed after a double consecutive pulse using the halogenated thymidine analogs, IdU (red) and CldU (green). DAPI (blue) was used to stain both nuclei. LN, left ... More about this image found in Nuclei labeling patterns observed after a double pulse using halogenated th...
Images
Published: 30 May 2023
Fig. 5. Analysis of potential HoRT collisions and GO enrichment for genes identified in genomic regions with or without transcription–replication collision. (A,B) Scheme exemplifying the directions of the replication fork (left or right) and the RNA polymerase (+ or –) that might lead to a poten... More about this image found in Analysis of potential HoRT collisions and GO enrichment for genes identifie...
Journal Articles
Images
Published: 30 May 2023
Immunofluorescence microscopy of Trypanosoma parasites. Nuclei are in blue and flagella in red. More about this image found in Immunofluorescence microscopy of Trypanosoma parasites. Nuclei are in bl...
Journal Articles
Journal Articles
Yi-Shyun Lai, Cheng-Chi Chang, Yong-Yi Chen, Thi My Hang Nguyen, Jixuan Xu, Ying-Chi Chen, Yu-Fen Chang, Chia-Yih Wang, Pai-Sheng Chen, Shih-Chieh Lin, I-Chen Peng, Shaw-Jenq Tsai, Wen-Tai Chiu
Journal:
Journal of Cell Science
J Cell Sci jcs.260819.
Published: 26 May 2023
Journal Articles
Beverley Wilson, Chloe Flett, Jakub Gemperle, Craig Lawless, Matthew Hartshorn, Eleanor Hinde, Tess Harrison, Megan Chastney, Sarah Taylor, Jennifer Allen, Jim C. Norman, Thomas Zacharchenko, Patrick Caswell
Journal:
Journal of Cell Science
J Cell Sci jcs.260468.
Published: 26 May 2023
Journal Articles
Journal Articles
Motoaki Hiraoka, Yuki Kiyota, Shinnosuke Kawai, Yusuke Notsu, Kohei Yamada, Katsuyuki Kurashima, Jing-Wen Chang, Shunsuke Shimazaki, Ayumu Yamamoto
Journal:
Journal of Cell Science
J Cell Sci (2023) 136 (10): jcs260727.
Published: 25 May 2023
Includes: Supplementary data
Images
in CDK actively contributes to establishment of the stationary phase state in fission yeast
> Journal of Cell Science
Published: 25 May 2023
Fig. 1. Changes in nuclear size and chromosome-occupying space in stationary phase and GD cells. (A) The nucleus and chromosomes in cells. Schematic diagram shows the plasma membrane (PM), the nuclear envelope (NE), and chromosomes (chromosome) in an S. pombe cell. In micrographs, green shows ... More about this image found in Changes in nuclear size and chromosome-occupying space in stationary phase ...
Images
in CDK actively contributes to establishment of the stationary phase state in fission yeast
> Journal of Cell Science
Published: 25 May 2023
Fig. 2. Changes in sister chromatid association and chromosome fluctuation in stationary phase and after acute glucose depletion. (A) Analyzed chromosome loci. Upper illustration shows intranuclear chromosome organization. Bottom illustration shows positions of labeled chromosome loci on three d... More about this image found in Changes in sister chromatid association and chromosome fluctuation in stati...
Images
in CDK actively contributes to establishment of the stationary phase state in fission yeast
> Journal of Cell Science
Published: 25 May 2023
Fig. 3. Changes in Cdc2 localization in stationary phase and after acute glucose depletion. (A) Intracellular localization of Cdc2 and chromosomes (Hta1). White lines indicate cell outlines. An arrowhead indicates SPB localization of Cdc2. Scale bar: 2 µm. (B) Cdc2 localization patterns. Nuclear... More about this image found in Changes in Cdc2 localization in stationary phase and after acute glucose de...
Images
in CDK actively contributes to establishment of the stationary phase state in fission yeast
> Journal of Cell Science
Published: 25 May 2023
Fig. 4. Viability of stationary phase and GD cells. (A) Changes in viability of stationary phase cells over time. WT cells were grown to stationary phase and further incubated without medium change (S) or after changing the medium to fresh YES-Glc medium (SH and SL). SH, high cell density; SL, l... More about this image found in Viability of stationary phase and GD cells. (A) Changes in viability of st...
Images
in CDK actively contributes to establishment of the stationary phase state in fission yeast
> Journal of Cell Science
Published: 25 May 2023
Fig. 5. The effects of cdc2 temperature-sensitive mutation on the cell state. (A) Growth of cdc2-L7 and WT cells on YES solid medium at 32°C and 34°C. Image representative of three repeats. (B) Growth curves of WT and cdc2-L7 cells at 32°C. (C) Cell density of WT and cdc2-L7 cells in sta... More about this image found in The effects of cdc2 temperature-sensitive mutation on the cell state. (A...
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