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ARVO Annual Meeting Abstract June 2024

Hypoxia-regulated epigenetic programing governs lens fiber cell differentiation

Lisa A Brennan; Joshua Disatham; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2024; 65(7):1476.

ARVO Annual Meeting Abstract June 2024

The transcriptional landscape of the hypoxia-driven lens differentiation pathway.

Oze Elimelech; Lisa A Brennan; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2024; 65(7):3243.

ARVO Annual Meeting Abstract June 2023

Multiomic analysis of HIF1a binding, regulation and gene expression combined with characterization of novel lens conditional HIF1a KO mice reveals essential requirements for hypoxia and HIF1a in mature lens formation

Joshua Disatham; Lisa A Brennan; Michael L Robinson; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2023; 64(8):522.

ARVO Annual Meeting Abstract June 2023

Epigenetic programming regulates lens fiber cell gene expression to achieve lens fiber cell form and function and is dependent on the hypoxic environment of differentiating lens fiber cells.

Lisa A Brennan; Joshua Disatham; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2023; 64(8):4395.

Lens February 2023

Repurposing a Cyclin-Dependent Kinase 1 (CDK1) Mitotic Regulatory Network to Complete Terminal Differentiation in Lens Fiber Cells

PDF

Allen Taylor; Yumei Gu; Min-Lee Chang; Wenxin Yang; Sarah Francisco; Sheldon Rowan; Eloy Bejarano; Steven Pruitt; Liang Zhu; Grant Weiss; Lisa Brennan; Marc Kantorow; Elizabeth A. Whitcomb
TAGS: cdc2 protein kinase, lens (device), lens, crystalline
Invest. Ophthalmol. Vis. Sci.. 2023; 64(2):6. https://doi.org/10.1167/iovs.64.2.6

Includes: Supplemental Content

ARVO Annual Meeting Abstract June 2022

Gene Silencing by DNA Methylation Predicts Chromatin Regions and Transcription Factors Required for Lens Differentiation

Joshua Disatham; Lisa A Brennan; Xiaodong Jiao; Zhiwei Ma; James F Hejtmancik; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2022; 63(7):838.

ARVO Annual Meeting Abstract June 2022

Lamin phosphorylation directs nuclear condensation and nuclear envelope reorganization during lens differentiation

Elizabeth A Whitcomb; Giuliana Perini-Villanueva; Sarah Francisco; Marc Kantorow; Lisa A Brennan; Paul G FitzGerald; Allen Taylor

Invest. Ophthalmol. Vis. Sci.. 2022; 63(7):3108.

Lens April 2022

Patterns of Crystallin Gene Expression in Differentiation State Specific Regions of the Embryonic Chicken Lens

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Zhiwei Ma; Daniel Chauss; Joshua Disatham; Xiaodong Jiao; Lisa Ann Brennan; A. Sue Menko; Marc Kantorow; J. Fielding Hejtmancik
TAGS: crystallins, genes, lens (device), lens, crystalline, chickens, gene expression, embryo
Invest. Ophthalmol. Vis. Sci.. 2022; 63(4):8. https://doi.org/10.1167/iovs.63.4.8

Includes: Supplemental Content

ARVO Annual Meeting Abstract June 2021

Control of lens fiber cell denucleation by CDK1 regulation in mouse and chick

Elizabeth A Whitcomb; Yumei Gu; Min-Lee Chang; Wenxin Yang; Sarah G Francisco; Marc Kantorow; Lisa A Brennan; Steven Pruitt; Liang Zhu; Allen Taylor

Invest. Ophthalmol. Vis. Sci.. 2021; 62(8):2082.

ARVO Annual Meeting Abstract June 2021

Multiomic identification of genome-wide DNA binding sites and target genes identifies HIF1α as a hypoxia-dependent master regulator of lens gene expression

Joshua Disatham; Lisa A Brennan; Daniel Chauss; Jason Kantorow; Behdad Afzali; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2021; 62(8):2081.

ARVO Annual Meeting Abstract June 2020

Hypoxia regulates lens fiber cell differentiation to form the mature transparent eye lens

Lisa A Brennan; Joshua Disatham; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2020; 61(7):2300.

ARVO Annual Meeting Abstract June 2020

Control of lens fiber cell denucleation by CDK1 and its regulators

Elizabeth Whitcomb; Min-Lee Chang; Yumei Gu; Wenxin Yang; Sarah G Francisco; Steven Pruitt; Liang Zhu; Marc Kantorow; Allen Taylor

Invest. Ophthalmol. Vis. Sci.. 2020; 61(7):2302.

ARVO Annual Meeting Abstract July 2019

Genome-wide chromatin mapping and transcriptome analysis reveals chromatin regulation as a novel mechanism for controlling gene expression during lens differentiation

Joshua Disatham; Daniel Chauss; Rifah Gheyas; Lisa A Brennan; David Blanco; Lauren Daley; A Sue Menko; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2019; 60(9):4286.

ARVO Annual Meeting Abstract June 2017

Elimination of Mitochondria, Endoplasmic Reticulum and Golgi during lens cell differentiation to form the lens organelle-free zone requires the mitophagy protein BNIP3L and is regulated by the transcription factor HIF1a.

Lisa A Brennan; Rebecca McGreal; Caitlin Logan; Ales Cvekl; A Sue Menko; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2017; 58(8):1212.

ARVO Annual Meeting Abstract June 2017

A role for the PI3K regulator PIK3IP1 in signaling the autophagy-dependent removal of organelles during lens development

Rifah Gheyas; Lisa A Brennan; Marc Kantorow; A Sue Menko

Invest. Ophthalmol. Vis. Sci.. 2017; 58(8):1712.

ARVO Annual Meeting Abstract September 2016

UV-light- and oxidative stress-dependent phosphorylation and translocation of αB-crystallin to the mitochondria and nucleus of lens epithelial cells and its protection of lens organelles.

Lisa A Brennan; Rebecca McGreal; Daniel Chauss; Josef Khoury; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2016; 57(12)

ARVO Annual Meeting Abstract June 2015

BNIP3L/Nix is required for mitochondrial elimination through mitophagy and the subsequent elimination of endoplasmic reticulum during the lens fiber cell differentiation program.

Lisa A Brennan; Karem Aktan; Suren Rajakaruna; Rebecca S McGreal; Daniel Chauss; Ales Cvekl; A. Sue Menko; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2015; 56(7 ):4838.

ARVO Annual Meeting Abstract June 2015

Parkin-directed mitophagy is required for lens cell survival upon exposure to cataract-associated environmental insults.

Marc Kantorow; Karem Aktan; Daniel Chauss; Lisa A Brennan

Invest. Ophthalmol. Vis. Sci.. 2015; 56(7 ):2654.

ARVO Annual Meeting Abstract April 2014

Lens epithelial cells use phagocytosis as a mechanism to remove apoptotic cellular debris

Daniel Chauss; Lisa A Brennan; Bettina Teng; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2014; 55(13):3568.

ARVO Annual Meeting Abstract April 2014

Parkin regulates mitochondrial quality control in oxidative stress-treated lens epithelial cells through mitophagy

Lisa A Brennan; Daniel Chauss; Subhasree Basu; A Sue Menko; Marc Kantorow

Invest. Ophthalmol. Vis. Sci.. 2014; 55(13):3571.

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Hypoxia-regulated epigenetic programing governs lens fiber cell differentiation

The transcriptional landscape of the hypoxia-driven lens differentiation pathway.

Multiomic analysis of HIF1a binding, regulation and gene expression combined with characterization of novel lens conditional HIF1a KO mice reveals essential requirements for hypoxia and HIF1a in mature lens formation

Epigenetic programming regulates lens fiber cell gene expression to achieve lens fiber cell form and function and is dependent on the hypoxic environment of differentiating lens fiber cells.

Repurposing a Cyclin-Dependent Kinase 1 (CDK1) Mitotic Regulatory Network to Complete Terminal Differentiation in Lens Fiber Cells

Gene Silencing by DNA Methylation Predicts Chromatin Regions and Transcription Factors Required for Lens Differentiation

Lamin phosphorylation directs nuclear condensation and nuclear envelope reorganization during lens differentiation

Patterns of Crystallin Gene Expression in Differentiation State Specific Regions of the Embryonic Chicken Lens

Control of lens fiber cell denucleation by CDK1 regulation in mouse and chick

Multiomic identification of genome-wide DNA binding sites and target genes identifies HIF1α as a hypoxia-dependent master regulator of lens gene expression

Hypoxia regulates lens fiber cell differentiation to form the mature transparent eye lens

Control of lens fiber cell denucleation by CDK1 and its regulators

Genome-wide chromatin mapping and transcriptome analysis reveals chromatin regulation as a novel mechanism for controlling gene expression during lens differentiation

Elimination of Mitochondria, Endoplasmic Reticulum and Golgi during lens cell differentiation to form the lens organelle-free zone requires the mitophagy protein BNIP3L and is regulated by the transcription factor HIF1a.

A role for the PI3K regulator PIK3IP1 in signaling the autophagy-dependent removal of organelles during lens development

UV-light- and oxidative stress-dependent phosphorylation and translocation of αB-crystallin to the mitochondria and nucleus of lens epithelial cells and its protection of lens organelles.

BNIP3L/Nix is required for mitochondrial elimination through mitophagy and the subsequent elimination of endoplasmic reticulum during the lens fiber cell differentiation program.

Parkin-directed mitophagy is required for lens cell survival upon exposure to cataract-associated environmental insults.

Lens epithelial cells use phagocytosis as a mechanism to remove apoptotic cellular debris

Parkin regulates mitochondrial quality control in oxidative stress-treated lens epithelial cells through mitophagy

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