10.25402/BTN.11903091.v1
Liam P. Dow
Liam P.
Dow
Aimal H. Khankhel
Aimal H.
Khankhel
John Abram
John
Abram
Megan T. Valentine
Megan T.
Valentine
Supplementary information for: 3D-printable cell crowding device enables imaging of live cells in compression: Indenter.STL
Future Science Group
2020
Epithelial mechanics
cell compression
microscopy
mechanobiology
3D printing
Biochemistry and Cell Biology not elsewhere classified
Biological Sciences not elsewhere classified
2020-02-26 15:43:42
Figure
https://future-science-group.figshare.com/articles/figure/Supplementary_information_for_3D-printable_cell_crowding_device_enables_imaging_of_live_cells_in_compression_Indenter_STL/11903091
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<p><b>Figure
S1.</b>
Cell density along the axis of compression increased approximately 20%, from
14.0± 0.5 to 16.6 ± 0.9. Error bars indicate standard error of the mean.
Cells were counted using the maximum intensity projections of the Hoechst
channel before and after crowding</p>
<p><b>Figure
S2.</b>
Exploded view of the assembled device, with annotation numbers as described
in Tables S1 and S2. Since some regions of this device experience high
localized stress during tension, the 3-D printed components included
structural support features such as side ribs (1)for the base plate and
gussets for the indenter (5, in inset).</p>
<p>Table
S1: 3-D Printed Parts </p>
<p>Table
S2: McMaster-Carr Parts </p>
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