Reverse Mechanotransduction: Driving Chromatin Compaction to Decompaction Increases Cell Adhesion Strength and Contractility by Julie Buisson (18269515)

“…We observe that chromatin compaction, induced by performing histone acetyltransferase inhibition or ATP depletion, leads to a reduction in nuclear volume, disrupting actin cytoskeleton and focal adhesion assembly, and ultimately decreases in cell adhesion strength and traction force. …”

Reverse Mechanotransduction: Driving Chromatin Compaction to Decompaction Increases Cell Adhesion Strength and Contractility by Julie Buisson (18269515)

“…We observe that chromatin compaction, induced by performing histone acetyltransferase inhibition or ATP depletion, leads to a reduction in nuclear volume, disrupting actin cytoskeleton and focal adhesion assembly, and ultimately decreases in cell adhesion strength and traction force. …”

Reverse Mechanotransduction: Driving Chromatin Compaction to Decompaction Increases Cell Adhesion Strength and Contractility by Julie Buisson (18269515)

“…We observe that chromatin compaction, induced by performing histone acetyltransferase inhibition or ATP depletion, leads to a reduction in nuclear volume, disrupting actin cytoskeleton and focal adhesion assembly, and ultimately decreases in cell adhesion strength and traction force. …”

Reverse Mechanotransduction: Driving Chromatin Compaction to Decompaction Increases Cell Adhesion Strength and Contractility by Julie Buisson (18269515)

“…We observe that chromatin compaction, induced by performing histone acetyltransferase inhibition or ATP depletion, leads to a reduction in nuclear volume, disrupting actin cytoskeleton and focal adhesion assembly, and ultimately decreases in cell adhesion strength and traction force. …”

Reverse Mechanotransduction: Driving Chromatin Compaction to Decompaction Increases Cell Adhesion Strength and Contractility by Julie Buisson (18269515)

“…We observe that chromatin compaction, induced by performing histone acetyltransferase inhibition or ATP depletion, leads to a reduction in nuclear volume, disrupting actin cytoskeleton and focal adhesion assembly, and ultimately decreases in cell adhesion strength and traction force. …”

Reverse Mechanotransduction: Driving Chromatin Compaction to Decompaction Increases Cell Adhesion Strength and Contractility by Julie Buisson (18269515)

“…We observe that chromatin compaction, induced by performing histone acetyltransferase inhibition or ATP depletion, leads to a reduction in nuclear volume, disrupting actin cytoskeleton and focal adhesion assembly, and ultimately decreases in cell adhesion strength and traction force. …”

List of primers. by Mylene Vaillancourt (7409486)

“…<i>aeruginosa</i> virulence mechanisms. Using a macrophage infection model combined with genomic and transcriptomic analyses, we show that a compensatory mutation in the <i>rne</i> gene, encoding RNase E, increased pyoverdine and pyochelin siderophore gene expression, causing macrophage ferroptosis and lysis. …”

List of strains. by Mylene Vaillancourt (7409486)

“…<i>aeruginosa</i> virulence mechanisms. Using a macrophage infection model combined with genomic and transcriptomic analyses, we show that a compensatory mutation in the <i>rne</i> gene, encoding RNase E, increased pyoverdine and pyochelin siderophore gene expression, causing macrophage ferroptosis and lysis. …”

Circular and Chainlike Copper(II)–Lanthanide(III) Complexes Generated by Assembly Reactions of Racemic and Chiral Copper(II) Cross-Linking Ligand Complexes with Ln^III(NO... by Takahiro Ueno (734599)

“…When the temperature was lowered, <b>1Ln</b> and <b>2Ln</b> (<b>Ln</b> = <b>Tb</b>, <b>Dy</b>) showed a decrease in the χ_M<i>T</i> vs <i>T</i> plot due to crystal field effects on the Ln^III ion (Stark splitting) and an increase due to the ferromagnetic Cu^II–Ln^III interaction. …”

Circular and Chainlike Copper(II)–Lanthanide(III) Complexes Generated by Assembly Reactions of Racemic and Chiral Copper(II) Cross-Linking Ligand Complexes with Ln^III(NO... by Takahiro Ueno (734599)

“…When the temperature was lowered, <b>1Ln</b> and <b>2Ln</b> (<b>Ln</b> = <b>Tb</b>, <b>Dy</b>) showed a decrease in the χ_M<i>T</i> vs <i>T</i> plot due to crystal field effects on the Ln^III ion (Stark splitting) and an increase due to the ferromagnetic Cu^II–Ln^III interaction. …”

Circular and Chainlike Copper(II)–Lanthanide(III) Complexes Generated by Assembly Reactions of Racemic and Chiral Copper(II) Cross-Linking Ligand Complexes with Ln^III(NO... by Takahiro Ueno (734599)

“…When the temperature was lowered, <b>1Ln</b> and <b>2Ln</b> (<b>Ln</b> = <b>Tb</b>, <b>Dy</b>) showed a decrease in the χ_M<i>T</i> vs <i>T</i> plot due to crystal field effects on the Ln^III ion (Stark splitting) and an increase due to the ferromagnetic Cu^II–Ln^III interaction. …”

Circular and Chainlike Copper(II)–Lanthanide(III) Complexes Generated by Assembly Reactions of Racemic and Chiral Copper(II) Cross-Linking Ligand Complexes with Ln^III(NO... by Takahiro Ueno (734599)

“…When the temperature was lowered, <b>1Ln</b> and <b>2Ln</b> (<b>Ln</b> = <b>Tb</b>, <b>Dy</b>) showed a decrease in the χ_M<i>T</i> vs <i>T</i> plot due to crystal field effects on the Ln^III ion (Stark splitting) and an increase due to the ferromagnetic Cu^II–Ln^III interaction. …”

Circular and Chainlike Copper(II)–Lanthanide(III) Complexes Generated by Assembly Reactions of Racemic and Chiral Copper(II) Cross-Linking Ligand Complexes with Ln^III(NO... by Takahiro Ueno (734599)

“…When the temperature was lowered, <b>1Ln</b> and <b>2Ln</b> (<b>Ln</b> = <b>Tb</b>, <b>Dy</b>) showed a decrease in the χ_M<i>T</i> vs <i>T</i> plot due to crystal field effects on the Ln^III ion (Stark splitting) and an increase due to the ferromagnetic Cu^II–Ln^III interaction. …”

Circular and Chainlike Copper(II)–Lanthanide(III) Complexes Generated by Assembly Reactions of Racemic and Chiral Copper(II) Cross-Linking Ligand Complexes with Ln^III(NO... by Takahiro Ueno (734599)

“…When the temperature was lowered, <b>1Ln</b> and <b>2Ln</b> (<b>Ln</b> = <b>Tb</b>, <b>Dy</b>) showed a decrease in the χ_M<i>T</i> vs <i>T</i> plot due to crystal field effects on the Ln^III ion (Stark splitting) and an increase due to the ferromagnetic Cu^II–Ln^III interaction. …”

Circular and Chainlike Copper(II)–Lanthanide(III) Complexes Generated by Assembly Reactions of Racemic and Chiral Copper(II) Cross-Linking Ligand Complexes with Ln^III(NO... by Takahiro Ueno (734599)

“…When the temperature was lowered, <b>1Ln</b> and <b>2Ln</b> (<b>Ln</b> = <b>Tb</b>, <b>Dy</b>) showed a decrease in the χ_M<i>T</i> vs <i>T</i> plot due to crystal field effects on the Ln^III ion (Stark splitting) and an increase due to the ferromagnetic Cu^II–Ln^III interaction. …”

Circular and Chainlike Copper(II)–Lanthanide(III) Complexes Generated by Assembly Reactions of Racemic and Chiral Copper(II) Cross-Linking Ligand Complexes with Ln^III(NO... by Takahiro Ueno (734599)

“…When the temperature was lowered, <b>1Ln</b> and <b>2Ln</b> (<b>Ln</b> = <b>Tb</b>, <b>Dy</b>) showed a decrease in the χ_M<i>T</i> vs <i>T</i> plot due to crystal field effects on the Ln^III ion (Stark splitting) and an increase due to the ferromagnetic Cu^II–Ln^III interaction. …”

Cooperatively coupled cargo translocation. by Aidan I. Brown (509994)

“…(D) ubiquitin per peroxisome vs. . A characteristic decrease of ubiquitination with is seen that is largely independent of the number of binding sites . …”

Human ApoM overexpression in Goto-Kakizaki (GK) rats improves insulin resistance. by Lu Zheng (132726)

Regulation of Brain Tumor Dispersal by NKCC1 Through a Novel Role in Focal Adhesion Regulation by Tomas Garzon-Muvdi (168470)

“…Pharmacological inhibition and shRNA-mediated knockdown of NKCC1 expression led to decreased cell migration and invasion in vitro and in vivo. …”

The role of actin filaments in recruitment of Rab5-positive endosomes to the large tombusviral replication compartments in plant cells. by Kai Xu (122914)