Mona Batish

Dr. Mona Batish

Department of Medical and Molecular Sciences, University of Delaware, Newark, DE 19716, USA
orcid

Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 November 2011 in Cell
Verified
Journal Article
Closed access
DVDiana Y. Vargas
Diana Y. Vargas
KSKhyati Shah
Khyati Shah
Mona BatishMona Batish
Mona Batish
MLMichael Levandoski
Michael Levandoski
SSSourav Sinha
Sourav Sinha
STSanjay Tyagi
Sanjay Tyagi

28 May 2018 in Nature Genetics
Verified
Journal Article
Closed access
PDF file
YZYajia Zhang
Yajia Zhang
SPSethuramasundaram Pitchiaya
Sethuramasundaram Pitchiaya
MCMarcin Cieślik
Marcin Cieślik
YNYashar S. Niknafs
Yashar S. Niknafs
JTJean C.-Y. Tien
Jean C.-Y. Tien
ACArul M. Chinnaiyan
Arul M. Chinnaiyan

5 March 2012 in Proceedings of the National Academy of Sciences
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Journal Article
Closed access
Mona BatishMona Batish
Mona Batish
PBPatrick van Den Bogaard
Patrick van Den Bogaard
FKFred Russell Kramer
Fred Russell Kramer
STSanjay Tyagi
Sanjay Tyagi
RNA transport granules deliver translationally repressed mRNAs to synaptic sites in dendrites, where synaptic activity promotes their localized translation. Although the identity of many proteins that make up the neuronal granules is known, the stoichiometry of their core component, the mRNA, is poorly understood. By imaging nine different dendritically localized mRNA species with single-molecule sensitivity and subdiffraction-limit resolution in cultured hippocampal neurons, we show that two molecules of the same or different mRNA species do not assemble in common structures. Even mRNA species with a common dendritic localization element, the sequence that is believed to mediate the incorporation of these mRNAs into common complexes, do not colocalize. These results suggest that mRNA molecules traffic to the distal reaches of dendrites singly and independently of others, a model that permits a finer control of mRNA content within a synapse for synaptic plasticity.

17 June 2019 in Cell Research
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Journal Article
Closed access
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JGJlenia Guarnerio
Jlenia Guarnerio
YZYang Zhang
Yang Zhang
GCGiulia Cheloni
Giulia Cheloni
RPRiccardo Panella
Riccardo Panella
JKJesse Mae Katon
Jesse Mae Katon
PPPier Paolo Pandolfi
Pier Paolo Pandolfi

27 March 2020 in The Plant Cell
Verified
Journal Article
Open access
PDF file
AHAlex Harkess
Alex Harkess
KHKun Huang
Kun Huang
RHRon van der Hulst
Ron van der Hulst
BTBart Tissen
Bart Tissen
JCJeffrey L. Caplan
Jeffrey L. Caplan
JLJames Leebens-Mack
James Leebens-Mack
Y chromosome in garden asparagus determines sex via two Y-linked genes, one that suppresses female pistil development and another that promotes male anther deve

10 February 2015 in Science Signaling
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Journal Article
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SPSonali Patil
Sonali Patil
MFMiguel Fribourg
Miguel Fribourg
YGYongchao Ge
Yongchao Ge
Mona BatishMona Batish
Mona Batish
STSanjay Tyagi
Sanjay Tyagi
SSStuart C. Sealfon
Stuart C. Sealfon
Immune responses to viral infection are stochastic processes, which initiate in a limited number of cells that then propagate the response. A key component of the response to viral infection entails the synthesis and secretion of type I interferons (IFNs), including the early induction of the gene encoding IFN-β (Ifnb1). With single-cell analysis and mathematical modeling, we investigated the mechanisms underlying how increases in the amount of Ifnb1 mRNA per cell and in the numbers of cells expressing Ifnb1 calibrate the response to viral infection. We used single-cell, single-molecule assays to quantify the early induction of Ifnb1 expression (the Ifnb1 response) in human monocyte-derived dendritic cells infected with Newcastle disease virus, thus retaining the physiological stoichiometry of transcriptional regulators to both alleles of the Ifnb1 gene. We applied computational methods to extract the stochastic features that underlie the cell-to-cell variations in gene expression over time. Integration of simulations and experiments identified the role of paracrine signaling in increasing the number of cells that express Ifnb1 over time and in calibrating the immune response to viral infection.