<HashMap><database>bioimages</database><scores/><additional><omics_type>Unknown</omics_type><submitter>Claudio R. Thoma</submitter><journal>The Journal of Cell Biology</journal><full_dataset_link>https://www.ebi.ac.uk/biostudies/studies/S-JCBD-201006059</full_dataset_link><attach_to>JCB</attach_to><legend>Deltavision raw file of RCC-4 cell (VHL30) stained with anti-alpha-tubulin and anti-GTP-tubulin antibodies</legend><legend>Stack for Immunofluorescence analysis of the overall MT mass in RCC-4 cells expressing the  empty vector as control (VHL-/-).  α-tubulin is in green, GSK3β is in red. Stacks were acquired with a Leica SP2 system using the 63x 1.4NA, Oil, HCX Plan-Apo Objective, distance between stacks is 1 micron.</legend><legend>Deltavision raw file of Video 4</legend><legend>Stack for Immunofluorescence analysis of the overall MT mass in RCC-4 cells expressing the  wild-tye VHL30.  α-tubulin is in green, GSK3β is in red. Stacks were acquired with a Leica SP2 system using the 63x 1.4NA, Oil, HCX Plan-Apo Objective, distance between stacks is 1 micron.</legend><legend>Deltavision raw file of Video 2</legend><legend>Deltavision raw file of Video 1</legend><legend>Deltavision raw file of Video 3a and b</legend><legend>Movie raw file of RPE-1 GFP-α-tubulin cells expressing shRNAmir against VHL. Frame rate 2Hz, exposure time 0.2 s, Olympus 100X/1.40 Oil objective.</legend><legend>Deltavision raw file of RCC-4 cell (VHL-/-) stained with anti-alpha-tubulin and anti-GTP-tubulin antibodies</legend><repository>bioimages</repository><figure_sub>Figure 5 - F) VHL-/-</figure_sub><figure_sub>Image 10093 (Figure 5 - F) VHL-/-)</figure_sub><figure_sub>Image 10092 (Video 4 - VHL30)</figure_sub><figure_sub>Video 2 - None</figure_sub><figure_sub>Image 10091 (Video 4 - VHL-/-)</figure_sub><figure_sub>Supplemental Figure 1</figure_sub><figure_sub>Image 23038 (Figure 1 - C)</figure_sub><figure_sub>Video 1 - None</figure_sub><figure_sub>Video 4 - VHL30</figure_sub><figure_sub>Supplemental Figure 1 - B and C</figure_sub><figure_sub>Video 2</figure_sub><figure_sub>Image 23547 (Video 2 - None)</figure_sub><figure_sub>Video 1</figure_sub><figure_sub>Video 4</figure_sub><figure_sub>Image 23548 (Video 3a and b - None)</figure_sub><figure_sub>Image 23037 (Supplemental Figure 1 - B and C)</figure_sub><figure_sub>Figure 1 - C</figure_sub><figure_sub>Video 3a and b</figure_sub><figure_sub>Figure 5</figure_sub><figure_sub>Figure 5 - F) VHL30</figure_sub><figure_sub>Image 10088 (Video 1 - None)</figure_sub><figure_sub>Video 4 - VHL-/-</figure_sub><figure_sub>Image 10094 (Figure 5 - F) VHL30)</figure_sub><figure_sub>Image 23039 (Figure 1 - C)</figure_sub><figure_sub>Figure 1</figure_sub><figure_sub>Video 3a and b - None</figure_sub><pubmed_authors>Zlatko Smole</pubmed_authors><pubmed_authors>Wilhelm Krek</pubmed_authors><pubmed_authors>Alexandre Matov</pubmed_authors><pubmed_authors>Christian R. Hoerner</pubmed_authors><pubmed_authors>Claudio R. Thoma</pubmed_authors><pubmed_authors>Gaudenz Danuser</pubmed_authors><pubmed_authors>Katrin L. Gutbrodt</pubmed_authors></additional><is_claimable>false</is_claimable><name>Quantitative image analysis identifies pVHL as a key regulator of microtubule dynamic instability</name><description/><dates><release>2010-09-20T11:20:38Z</release><modification>2018-11-29T11:20:38Z</modification><creation>2018-11-29T11:20:38Z</creation></dates><accession>S-JCBD-201006059</accession><cross_references><doi>10.1083/jcb.201006059</doi></cross_references></HashMap>