<p>(A) Control astrocytes (Con) or astrocytes treated for 2, 6, 12, or 24 h with 5 μM HYS-32 were fixed in cold acetone and double-stained for β -tubulin (green) and F-actin (blue). Double arrows indicate the distance between microtubule tips and the cell border (bars = 5 μm). (B) Quantitative analyses of the distance between microtubule tips and cell border were performed as described in Materials and Methods. The results were collected from three independent experiments. *<i>p</i><0.01compared to control (Con) using one-way ANOVA with Dunnett’s post-hoctest.</p
<p>(A–C) FM64-4 4-day MDCK 3-D structures were video-recorded. Maximum intensity and z projections a...
Microtubule-targeting agents (MTAs) are widely used chemotherapy drugs capable of disrupting microtu...
<p>HYS-32 induces microtubule catastrophes by causing EB1 dislodgement from microtubule plus ends an...
<p>(A) Control astrocytes (Con), astrocytes treated for 24 h with 5 μM HYS-32 (HYS), or astrocytes t...
<p>(A) Control astrocytes (Con) or astrocytes treated for 24 h with 5 μM HYS-32 (HYS), co-treated fo...
<p>(A) Control astrocytes (Con) or astrocytes treated for 24 h with 5 μM HYS-32 (HYS), co-treated fo...
<p>Control astrocytes (Con) or astrocytes treated for 24 h with 5 μM HYS-32 (HYS), co-treated for 24...
<p>(A) Control astrocytes (Con) or astrocytes treated with 5 μM HYS-32 (HYS), co-treated for 24 h wi...
<p>(A) Cell lysates from control astrocytes (Con) or astrocytes treated for 2, 6, 12, or 24 h with 5...
<p>Control astrocytes (Con) or astrocytes treated for 24 h with 5 μM HYS-32 (HYS), or treated for 24...
<p>(A) Time projections (the maximum intensity projections of all time points) of time-lapse sequenc...
<p>(A–C). Microtubules visualized by tubulin-GFP fusion. For A and B, two focal planes are shown, to...
In moving cells dynamic microtubules (MTs) target and disassemble substrate adhesion sites (focal ad...
<p>(A) Live-cell images of HeLa<sup>EB3-TdTomato</sup> cells treated with 40 <b>μ</b>M glipizide or ...
<p>(<b>A</b>) Inhibition of N-STOP-induced microtubule cold stability by Bmcc1s <i>in vitro</i>. Mic...
<p>(A–C) FM64-4 4-day MDCK 3-D structures were video-recorded. Maximum intensity and z projections a...
Microtubule-targeting agents (MTAs) are widely used chemotherapy drugs capable of disrupting microtu...
<p>HYS-32 induces microtubule catastrophes by causing EB1 dislodgement from microtubule plus ends an...
<p>(A) Control astrocytes (Con), astrocytes treated for 24 h with 5 μM HYS-32 (HYS), or astrocytes t...
<p>(A) Control astrocytes (Con) or astrocytes treated for 24 h with 5 μM HYS-32 (HYS), co-treated fo...
<p>(A) Control astrocytes (Con) or astrocytes treated for 24 h with 5 μM HYS-32 (HYS), co-treated fo...
<p>Control astrocytes (Con) or astrocytes treated for 24 h with 5 μM HYS-32 (HYS), co-treated for 24...
<p>(A) Control astrocytes (Con) or astrocytes treated with 5 μM HYS-32 (HYS), co-treated for 24 h wi...
<p>(A) Cell lysates from control astrocytes (Con) or astrocytes treated for 2, 6, 12, or 24 h with 5...
<p>Control astrocytes (Con) or astrocytes treated for 24 h with 5 μM HYS-32 (HYS), or treated for 24...
<p>(A) Time projections (the maximum intensity projections of all time points) of time-lapse sequenc...
<p>(A–C). Microtubules visualized by tubulin-GFP fusion. For A and B, two focal planes are shown, to...
In moving cells dynamic microtubules (MTs) target and disassemble substrate adhesion sites (focal ad...
<p>(A) Live-cell images of HeLa<sup>EB3-TdTomato</sup> cells treated with 40 <b>μ</b>M glipizide or ...
<p>(<b>A</b>) Inhibition of N-STOP-induced microtubule cold stability by Bmcc1s <i>in vitro</i>. Mic...
<p>(A–C) FM64-4 4-day MDCK 3-D structures were video-recorded. Maximum intensity and z projections a...
Microtubule-targeting agents (MTAs) are widely used chemotherapy drugs capable of disrupting microtu...
<p>HYS-32 induces microtubule catastrophes by causing EB1 dislodgement from microtubule plus ends an...