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            <subfield code="a">January 2002 - </subfield>
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            <subfield code="a">1538-4101</subfield>
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            <subfield code="a">David Kachaner</subfield>
            <subfield code="a">Pierre Génin</subfield>
            <subfield code="a">Emmanuel Laplantine and Robert Weil</subfield>
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            <subfield code="a">cc</subfield>
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            <subfield code="a">Toward an integrative view of Optineurin functions</subfield> 
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            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
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        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">This review highlights recent advances in our understanding of the mechanisms of Optineurin (Optn) action and its implication in diseases. Optn has emerged as a key player regulating various physiological processes, including membrane trafficking, protein secretion, cell division and host defense against pathogens. Furthermore, there is growing evidence for an association of &lt;em&gt;Optn&lt;/em&gt; mutations with human diseases such as primary open-angle glaucoma, amyotrophic lateral sclerosis and Paget’s disease of bone. Optn functions depend on its precise subcellular localization and its interaction with other proteins. Here, we review the mechanisms that allow Optn to ensure a timely and spatially coordinated integration of different physiological processes and discuss how their deregulation may lead to different pathologies.</subfield>
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            <subfield code="u">http://dx.doi.org/10.4161/cc.20946</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/20946/</subfield>
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            <subfield code="t">article</subfield>
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            <subfield code="a">Javier A. Menendez</subfield>
            <subfield code="a">Cristina Oliveras-Ferraros</subfield>
            <subfield code="a">Sílvia Cufí</subfield>
            <subfield code="a">Bruna Corominas-Faja</subfield>
            <subfield code="a">Jorge Joven</subfield>
            <subfield code="a">Begoña Martin-Castillo and Alejandro Vazquez-Martin</subfield>
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            <subfield code="a">cc</subfield>
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        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Metformin is synthetically lethal with glucose withdrawal in cancer cells</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2782 - 2792</subfield>
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        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
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        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Glucose deprivation is a distinctive feature of the tumor microecosystem caused by the imbalance between poor supply and an extraordinarily high consumption rate. The metabolic reprogramming from mitochondrial respiration to aerobic glycolysis in cancer cells (the “Warburg effect”) is linked to oncogenic transformation in a manner that frequently implies the inactivation of metabolic checkpoints such as the energy rheostat AMP-activated protein kinase (AMPK). Because the concept of synthetic lethality in oncology can be applied not only to genetic and epigenetic intrinsic differences between normal and cancer cells but also to extrinsic ones such as altered microenvironment, we recently hypothesized that stress-energy mimickers such as the AMPK agonist metformin should produce metabolic synthetic lethality in a glucose-starved cell culture milieu imitating the adverse tumor growth conditions in vivo. Under standard high-glucose conditions, metformin supplementation mostly caused cell cycle arrest without signs of apoptotic cell death. Under glucose withdrawal stress, metformin supplementation circumvented the ability of oncogenes (e.g., HER2) to protect breast cancer cells from glucose-deprivation apoptosis. Significantly, representative cell models of breast cancer heterogeneity underwent massive apoptosis (by &gt; 90% in some cases) when glucose-starved cell cultures were supplemented with metformin. Our current findings may uncover crucial issues regarding the cell-autonomous metformin’s anti-cancer actions: (1) The offently claimed clinically irrelevant, non-physiological concentrations needed to observe the metformin’s anti-cancer effects in vitro merely underlie the artifactual interference of erroneous glucose-rich experimental conditions that poorly reflect glucose-starved in vivo conditions; (2) the preferential killing of cancer stem cells (CSC) by metformin may simply expose the best-case scenario for its synthetically lethal activity because an increased dependency on Warburg-like aerobic glycolysis (hyperglycolytic phenotype) is critical to sustain CSC stemness and immortality; (3) the microenvironment-mediated contextual synthetic lethality of metformin should be expected to enormously potentiate the anti-cancer effect of anti-angiogenesis agents that promote severe oxygen and glucose deprivation in certain areas of the tumor tissues.</subfield>
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        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.20948</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/20948/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Extra Views</subfield>
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    <mx:record id="20949">
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        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
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        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Hoi Leong Xavier Wong</subfield>
            <subfield code="a">Renhai Cao</subfield>
            <subfield code="a">Guoxiang Jin</subfield>
            <subfield code="a">Kui Ming Chan</subfield>
            <subfield code="a">Yihai Cao and Zhongjun Zhou</subfield>
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        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
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        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">When MT1-MMP meets ADAMs</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2793 - 2798</subfield>
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        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
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        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">MT1-MMP is a membrane-tethered enzyme capable of remodeling extracellular matrix. MT1-MMP-deficient mice exhibit systematic defects during development, especially in craniofacial development characterized by retarded calvarial bone formation. Recently, we identified MT1-MMP as a critical positive modulator of FGF signaling during intramembranous ossification. MT1-MMP cleaves ADAM9 to protect FGFR2 from ectodomain shedding. Depletion of ADAM9 in MT1-MMP-deficient mice significantly rescued the calvarial defects via restoring FGF signaling. Interestingly, this regulatory mechanism seems to be highly tissue-specific, as defective FGF2-induced corneal angiogenesis in &lt;em&gt;Mmp14&lt;/em&gt;&lt;sup&gt;−/−&lt;/sup&gt; mice could not be rescued by removal of ADAM9. In addition, MT1-MMP also cleaves another ADAM family member, ADAM15. Our current findings not only present a novel regulatory mechanism for FGF signaling but also reveal a functional crosstalk between MMP and ADAM families. Better understanding of the interplay between ADAMs and MT1-MMP and its consequences for signaling pathways will provide new insights into therapeutic approaches for the management of developmental disorders and various diseases, such as cancer.</subfield>
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        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.20949</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/20949/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Extra Views</subfield>
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    <mx:record id="20950">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
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        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Gennady Kholodii</subfield>
            <subfield code="a">Olga Dantsevich and Vyacheslav Tarantul</subfield>
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            <subfield code="a">cc</subfield>
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        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Transfecting DNA is frequently inserted near DNA replication origins</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2956 - 2958</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.20950</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/20950/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Letter to the Editor</subfield>
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    <mx:record id="21018">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Ranmal A. Samarasinghe</subfield>
            <subfield code="a">Selma F. Witchell and Donald B. DeFranco</subfield>
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        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
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        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Cooperativity and complementarity: Synergies in non-classical and classical glucocorticoid signaling</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2819 - 2827</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Glucocorticoids (GCs) are an ubiquitous class of steroid hormones that exert a wide array of physiological effects. Traditionally, GC action has been considered to primarily involve transcriptional effects following the binding of hormone to the glucocorticoid receptor (GR) and subsequent activation or repression of target genes. However, a number of findings suggest that cellular responses following GC exposure may be mediated by transcription-independent, or “non-classical,” mechanisms. We have added to this growing body of work by recently uncovering a novel GC signaling pathway that operates through plasma membrane GRs to limit gap junction intercellular signaling and limit the proliferation of neural progenitor cells (NPCs). In this review, we highlight our current state of knowledge of non-classical GR signaling, in particular as it applies to neuronal function. Using NPCs as a cellular model, we speculate on the components of this non-classical pathway and the mechanisms whereby a number of cytoplasmic and nuclear signaling events may be integrated.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21018</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21018/</subfield>
        </datafield>
 
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            <subfield code="t">article</subfield>
            <subfield code="n">Review</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21077">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Mir Farshid Alemdehy and Stefan J. Erkeland</subfield>
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        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Stop the dicing in hematopoiesis: What have we learned?</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2799 - 2807</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">MicroRNAs (miRNAs) belong to an abundant class of highly conserved small (22nt) non-coding RNAs. MiRNA profiling studies indicate that their expression is highly cell type-dependent. DICER1 is an essential RNase III endoribonuclease for miRNA processing. Hematopoietic cell type- and developmental stage-specific &lt;em&gt;Dicer1&lt;/em&gt; deletion models show that miRNAs are essential regulators of cellular survival, differentiation and function. For instance, miRNA deficiency in hematopoietic stem cells and progenitors of different origins results in decreased cell survival, dramatic developmental aberrations or dysfunctions in mice. We recently found that homozygous &lt;em&gt;Dicer1&lt;/em&gt; deletion in myeloid-committed progenitors results in an aberrant expression of stem cell genes and induces a regained self-renewal capacity. Moreover, &lt;em&gt;Dicer1&lt;/em&gt; deletion causes a block in macrophage development and myeloid dysplasia, a cellular condition that may be considered as a preleukemic state. However, &lt;em&gt;Dicer1&lt;/em&gt;-null cells do not develop leukemia in mice, indicating that depletion of miRNAs is not enough for tumorigenesis. Surprisingly, we found that heterozygous &lt;em&gt;Dicer1&lt;/em&gt; deletion in myeloid-committed progenitors, but not &lt;em&gt;Dicer1&lt;/em&gt; knockout, collaborates with &lt;em&gt;p53&lt;/em&gt; deletion in leukemic progression and results in various types of leukemia. Our data indicate that &lt;em&gt;Dicer1&lt;/em&gt; is a haploinsufficient tumorsuppressor in hematopoietic neoplasms, which is consistent with the observed downregulation of miRNA expression in human leukemia samples. Here, we review the various hematopoietic specific &lt;em&gt;Dicer1&lt;/em&gt; deletion mouse models and the phenotypes observed within the different hematopoietic lineages and cell developmental stages. Finally, we discuss the role for DICER1 in mouse and human malignant hematopoiesis.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21077</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21077/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Extra Views</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21168">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
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        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">So Young Park and Maki Asano</subfield>
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        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
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        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">An &lt;italic&gt;&lt;em&gt;orc1&lt;/em&gt;&lt;/italic&gt; allele with a mutated APC motif is female sterile with amplification defects</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2828 - 2832</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">The origin recognition complex 1 (ORC1) is the largest subunit of the ORC, the heteromeric hexamer. ORC1 is an essential component of the pre-replicative complex (pre-RC) that licenses eukaryote DNA replication origins. The levels of ORC1 fluctuate during the mitotic cell cycle in Drosophila as well as in some human cells. Proteolysis of ORC1 occurs at the end of M phase in Drosophila, which is mediated by the anaphase-promoting complex (APC), and in late S phase in human cells by Skip-Cullin-F box (SCF). Previously we showed that proteolysis of ORC1 by APC is mediated by the ORC1 destruction box (the O-box), an APC motif conserved among species yet distinct from the D-box or KEN-box. Recently we showed that replacing the O-box with the D-box (ORC1&lt;sup&gt;O→D&lt;/sup&gt;) changes the degradation profile of ORC1 during a canonical cell cycle. Here we report further characterization of the ORC1&lt;sup&gt;O→D&lt;/sup&gt; allele that turned out to be a useful tool to examine the function of ORC1 in other modes of DNA replication during oogenesis. In endoreplication stages ORC1&lt;sup&gt;O→D&lt;/sup&gt; does not change any DNA content profiles, consistent with our previous finding that ORC is dispensable for endoreplication. However, in amplification stage replication efficiency of ORC1&lt;sup&gt;O→D&lt;/sup&gt; is drastically reduced, which resulted in amplification defects that led to thin egg shell phenotype. Taken together, our analyses show that &lt;em&gt;orc1&lt;/em&gt; allele newly identified is female sterile and possesses a unique feature of phenotypes that are distinct in different modes of DNA replication.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21168</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21168/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21169">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Meng Xia</subfield>
            <subfield code="a">Hui He</subfield>
            <subfield code="a">Ying Wang</subfield>
            <subfield code="a">Minxi Liu</subfield>
            <subfield code="a">Tao Zhou</subfield>
            <subfield code="a">Min Lin</subfield>
            <subfield code="a">Zuomin Zhou</subfield>
            <subfield code="a">Ran Huo</subfield>
            <subfield code="a">Qi Zhou and Jiahao Sha</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">PCBP1 is required for maintenance of the transcriptionally silent state in fully grown mouse oocytes</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2833 - 2842</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Global transcriptional silencing in fully grown oocytes is a critical event during mammalian oogenesis. However, how this event is regulated remains elusive. Here, we provide evidence that poly(rC)-binding protein 1 (PCBP1), a protein found by us previously to be present in metaphase II (MII) mouse oocytes, participates in maintenance of the transcriptionally silent state in fully grown mouse oocytes. Knocking down &lt;em&gt;Pcbp1&lt;/em&gt; by microinjection of its specific siRNAs into fully grown germinal vesicle (GV) oocytes resulted in remarkable changes in their transcriptional state, including the disequilibrium between the number of oocytes with an NSN (non-surrounded nucleolus) and those with a SN (surrounded nucleolus), and obvious transcriptional reactiviation in oocytes with a SN configuration as evidenced by BrUTP incorporation assay and immunofluorescent labeling of phosphorylated RNA polymerase II CTD and trimethylated H3 lysine 4, markers for active transcription. Furthermore, in a comprehensive microarray analysis of the preovulatory oocyte transcriptome, an incredible number of nearly 4,000 transcripts were upregulated in the &lt;em&gt;Pcbp1&lt;/em&gt; knockdown groups. These data indicate that lack of the function of PCBP1 disrupts the quiescent status of transcription in the fully grown oocytes, and hence supporting a role of this protein in the regulation of global transcriptional silcencing in fully grown mouse oocytes.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21169</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21169/</subfield>
        </datafield>
 
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            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
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    <mx:record id="21190">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Alexandra Menant and Roger E. Karess</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Inducing “cytokinesis” without mitosis in unfertilized Drosophila eggs</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2856 - 2863</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Selection of the cleavage plane during cytokinesis in dividing cells is linked to the position of the mitotic spindle. A major player in cleavage plane positioning is believed to be the anaphase central spindle and its associated signaling complex called centralspindlin, composed of MgcRacGap and MKLP1. Centralspindlin has the capacity to induce furrowing of the cell cortex by promoting the localized activation of RhoA, which in turn promotes assembly of the contractile ring. We have found a way to induce a cytokinesis-like process in unfertilized Drosophila eggs and very early embryos, when spindle structures are few and located far from invaginating egg cortex. The simple injection of a small molecule inhibitor of Cdk1/Cyclin B (either Roscovitin or RO3306) is sufficient to promote membrane invagination near the site of injection. The furrow generated is in many respects similar to a classical cleavage furrow. Actin, myosin, anillin and MKLP1 are all associated with the forming furrow, which in some cases can entirely circumscribe the unfertilized egg. A similar furrow can also be generated by the localized injection of constitutively active RhoA protein, suggesting that Cdk1 is normally an upstream inhibitor of RhoA activation. We show further that this process apparently is not associated with microtubules. Since simple localized inhibition of Cdk1 is sufficient to induce a furrow, we suggest that in real cytokinesis in normal cells, the localized downregulation of Cdk1 activity at the metaphase-anaphase transition may contribute, along with the spindle, to the positioning of the cleavage furrow.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21190</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21190/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21193">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Melchiorre Cervello</subfield>
            <subfield code="a">Dimcho Bachvarov</subfield>
            <subfield code="a">Nadia Lampiasi</subfield>
            <subfield code="a">Antonella Cusimano</subfield>
            <subfield code="a">Antonina Azzolina</subfield>
            <subfield code="a">James A. McCubrey and Giuseppe Montalto</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Molecular mechanisms of sorafenib action in liver cancer cells</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2843 - 2855</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Sorafenib, a multikinase inhibitor, recently received FDA approval for the treatment of advanced hepatocellular carcinoma (HCC). However, as the clinical application of sorafenib evolves, there is increasing interest in defining the mechanisms underlying its anti-tumor activity. Considering that this specific inhibitor could target unexpected molecules depending on the biologic context, a precise understanding of its mechanism of action could be critical to maximize its treatment efficacy, while minimizing adverse effects. Two human HCC cell lines (HepG2 and Huh7), carrying different biological and genetic characteristics, were used in this study to examine the intracellular events leading to sorafenib-induced HCC cell-growth inhibition. Sorafenib inhibited cell growth in both cell lines in a dose- and time-dependent manner and significantly altered expression levels of 826 and 2011 transcripts in HepG2 and Huh7 cells, respectively. Genes functionally involved in angiogenesis, apoptosis, transcription regulation, signal transduction, protein biosynthesis and modification were predominantly upregulated, while genes implicated in cell cycle control, DNA replication recombination and repair, cell adhesion, metabolism and transport were mainly downregulated upon treatment. However, each sorafenib-treated HCC cell line displayed specificity in the expression and activity of crucial factors involved in hepatocarcinogenesis. The altered expression of some of these genes was confirmed by semiquantitative and quantitative RT-PCR and by western blotting. Many novel genes emerged from our transcriptomics analysis that had not previously been reported to be effected by sorafenib. Further functional analyses may determine whether these genes can serve as potential molecular targets for more effective anti-HCC strategies.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21193</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21193/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21196">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Lei Lv</subfield>
            <subfield code="a">Tianwei Zhang</subfield>
            <subfield code="a">Qiyi Yi</subfield>
            <subfield code="a">Yun Huang</subfield>
            <subfield code="a">Zheng Wang</subfield>
            <subfield code="a">Heli Hou</subfield>
            <subfield code="a">Huan Zhang</subfield>
            <subfield code="a">Wei Zheng</subfield>
            <subfield code="a">Qiaomei Hao</subfield>
            <subfield code="a">Zongyou Guo</subfield>
            <subfield code="a">Howard J. Cooke and Qinghua Shi</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Tetraploid cells from cytokinesis failure induce aneuploidy and spontaneous transformation of mouse ovarian surface epithelial cells</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2864 - 2875</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Most ovarian cancers originate from the ovarian surface epithelium and are characterized by aneuploid karyotypes. Aneuploidy, a consequence of chromosome instability, is an early event during the development of ovarian cancers. However, how aneuploid cells are evolved from normal diploid cells in ovarian cancers remains unknown. In the present study, cytogenetic analyses of a mouse syngeneic ovarian cancer model revealed that diploid mouse ovarian surface epithelial cells (MOSECs) experienced an intermediate tetraploid cell stage, before evolving to aneuploid (mainly near-tetraploid) cells. Using long-term live-cell imaging followed by fluorescence in situ hybridization (FISH), we demonstrated that tetraploid cells originally arose from cytokinesis failure of bipolar mitosis in diploid cells, and gave rise to aneuploid cells through chromosome mis-segregation during both bipolar and multipolar mitoses. Injection of the late passage aneuploid MOSECs resulted in tumor formation in C57BL/6 mice. Therefore, we reveal a pathway for the evolution of diploid to aneuploid MOSECs and elucidate a mechanism for the development of near-tetraploid ovarian cancer cells.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21196</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21196/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21254">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Deepak Adhikari</subfield>
            <subfield code="a">Kui Liu and Yan Shen</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Cdk1 drives meiosis and mitosis through two different mechanisms</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2763 - 2764</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Comment on: Adhikari D, et al. Hum Mol Gene 2012; 21:2476-84.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21254</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21254/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Editorials: Cell Cycle Features</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21255">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Andrea Frontini</subfield>
            <subfield code="a">Antonio Giordano and Saverio Cinti</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Endothelial cells of adipose tissues: A niche of adipogenesis</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2765 - 2766</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Comment on: Tran KV, et al. Cell Metab 2012; 15:222-9.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21255</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21255/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Editorials: Cell Cycle Features</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21256">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Vivian W.Y. Wong and Kim B. Jensen</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Environmental stimuli and intestinal stem cell behavior</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2767 - 2768</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Comment on: Wong VWY, et al. Nat Cell Biol 2012; 14:401-8.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21256</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21256/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Editorials: Cell Cycle Features</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21257">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Ian M. Willis and Jaehoon Lee</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Two new kinases in the TOR signaling network regulate ribosome and tRNA synthesis</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2769 - 2770</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Comment on: Lee J, et al. Mol Cell 2012; 45:836-43.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21257</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21257/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Editorials: Cell Cycle Features</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21258">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Wiebke Chemnitz Galal</subfield>
            <subfield code="a">Young-Hoon Kang and Jerard Hurwitz</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Establishing the human rolling circle reaction</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2771 - 2772</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Comment on: Kang YH, et al. Proc Natl Acad Sci USA 2012; 109:6042-7.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21258</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21258/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Editorials: Cell Cycle Features</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21259">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Gray F. Crouse</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Mismatch repair outside of replication</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2773 - 2774</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Comment on: Rodriguez GP, et al. Proc Natl Acad Sci USA 2012; 109:6153-8.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21259</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21259/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Editorials: Cell Cycle Features</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21261">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Bethann N. Johnson</subfield>
            <subfield code="a">Rakshita A. Charan and Matthew J. LaVoie</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Recognizing the cooperative and independent mitochondrial functions of Parkin and PINK1</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2775 - 2776</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Comment on: Johnson BN, et al. Proc Natl Acad Sci USA 2012; 109:6283-8.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21261</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21261/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Editorials: Cell Cycle Features</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21278">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Tak-hong Cheung</subfield>
            <subfield code="a">Kwun-nok Mimi Man</subfield>
            <subfield code="a">Mei-yung Yu</subfield>
            <subfield code="a">So-fan Yim</subfield>
            <subfield code="a">Nelson S.S. Siu</subfield>
            <subfield code="a">Keith W.K. Lo</subfield>
            <subfield code="a">Graeme Doran</subfield>
            <subfield code="a">Raymond R.Y. Wong</subfield>
            <subfield code="a">Vivian W. Wang</subfield>
            <subfield code="a">David I. Smith</subfield>
            <subfield code="a">Michael J. Worley</subfield>
            <subfield code="a">Jr.</subfield>
            <subfield code="a">Ross S. Berkowitz</subfield>
            <subfield code="a">Tony K.H. Chung and Yick-fu Wong</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Dysregulated microRNAs in the pathogenesis and progression of cervical neoplasm</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2876 - 2884</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">MicroRNAs (miRNAs) play an important role in a variety of physiological as well as pathophysiological processes, including carcinogenesis. The aim of this study is to identify a distinct miRNA expression signature for cervical intraepithelial neoplasia (CIN) and to unveil individual miRNAs that may be involved in the development of cervical carcinoma. Expression profiling using quantitative real-time RT-PCR of 202 miRNAs was performed on micro-dissected high-grade CIN (CIN 2/3) tissues and compared to normal cervical epithelium. Unsupervised hierarchical clustering of the miRNA expression pattern displayed a distinct separation between the CIN and normal cervical epithelium samples. Supervised analysis identified 12 highly differentially regulated miRNAs, including miR-518a, miR-34b, miR-34c, miR-20b, miR-338, miR-9, miR-512-5p, miR-424, miR-345, miR-10a, miR-193b and miR-203, which distinguished the high-grade CIN specimens from normal cervical epithelium. This miRNA signature was further validated by an independent set of high-grade CIN cases. The same characteristic signature can also be used to distinguish cervical squamous cell carcinoma from normal controls. Target prediction analysis revealed that these dysregulated miRNAs mainly control apoptosis signaling pathways and cell cycle regulation. These findings contribute to understanding the role of microRNAs in the pathogenesis and progression of cervical neoplasm at the molecular level.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21278</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21278/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21280">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Jennifer Chea</subfield>
            <subfield code="a">Sufang Zhang</subfield>
            <subfield code="a">Hong Zhao</subfield>
            <subfield code="a">Zhongtao Zhang</subfield>
            <subfield code="a">Ernest Y.C. Lee</subfield>
            <subfield code="a">Zbigniew Darzynkiewicz and Marietta Y.W.T. Lee</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Spatiotemporal recruitment of human DNA polymerase delta to sites of UV damage</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2885 - 2895</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Human DNA polymerase δ (Pol δ) is involved in various DNA damage responses in addition to its central role in DNA replication. The Pol δ4 holoenzyme consists of four subunits, p125, p50, p68 and p12. It has been established that the p12 subunit is rapidly degraded in response to DNA damage by UV leading to the in vivo conversion of Pol δ4 to Pol δ3, a trimeric form lacking the p12 subunit. We provide the first analysis of the time-dependent recruitment of the individual Pol δ subunits to sites of DNA damage produced by UV irradiation through 5 μm polycarbonate filters by immunofluorescence microscopy and laser scanning cytometry (LSC). Quantitative analysis demonstrates that the recruitments of the three large subunits was near complete by 2 h and did not change significantly up to 4 h after UV exposure. However, the recruitment of p12 was incomplete even at 4 h, with about 70% of the Pol δ lacking the p12 subunit. ChIP analysis of Pol δ after global UV irradiation further demonstrates that only p125, p50 and p68 were present. Thus, Pol δ3 is the predominant form of Pol δ at sites of UV damage as a result of p12 degradation. Using LSC, we have further confirmed that Pol δ was recruited to CPD damage sites in all phases of the cell cycle. Collectively, our results show that Pol δ at the DNA damage site is the Pol δ trimer lacking p12 regardless of the cell cycle phase.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21280</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21280/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21303">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Jenn Hui Khong</subfield>
            <subfield code="a">Tao Zhang</subfield>
            <subfield code="a">Jayantha Gunaratne</subfield>
            <subfield code="a">Walter Blackstock and Uttam Surana</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">“Reductional anaphase” in replication-defective cells is caused by ubiquitin-conjugating enzyme Cdc34-mediated deregulation of the spindle</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2896 - 2910</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Equal partitioning of the duplicated chromosomes into two daughter cells during cell division is a coordinated process and is initiated only after completion of DNA synthesis. However, this strict order of execution breaks down in &lt;em&gt;CDC6&lt;/em&gt;-deficient cells. Cdc6, an evolutionarily conserved protein, is required for the assembly of pre-replicative complexes (pre-RCs) and is essential for the initiation of DNA replication. Yeast cells lacking Cdc6 function, though unable to initiate DNA replication, proceed to undergo “reductional anaphase” by partitioning the unreplicated chromosomes and lose viability rapidly. This extreme form of genomic instability in cdc6 cells is thought to be due to inactivation of a pre-RC based, Cdc6-dependent checkpoint mechanism that, during normal cell cycle, inhibits premature onset of mitosis until pre-RC is assembled. Here, we show that chromosome segregation in &lt;em&gt;cdc6&lt;/em&gt; mutant is caused not by precocious initiation of mitosis in the absence of a checkpoint, but by the deregulation of spindle dynamics induced via a regulatory network involving the ubiquitin-conjugating enzyme Cdc34, microtubule-associated proteins (MAPs) and the anaphase-promoting complex (APC) activator Cdh1. This regulatory circuit governs spindle behavior in the early part of the division cycle and precipitates catastrophic chromosome segregation in the absence of DNA replication.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21303</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21303/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21336">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Carmela Guido</subfield>
            <subfield code="a">Salvatore Panza</subfield>
            <subfield code="a">Marta Santoro</subfield>
            <subfield code="a">Paola Avena</subfield>
            <subfield code="a">Maria Luisa Panno</subfield>
            <subfield code="a">Ida Perrotta</subfield>
            <subfield code="a">Francesca Giordano</subfield>
            <subfield code="a">Ivan Casaburi</subfield>
            <subfield code="a">Stefania Catalano</subfield>
            <subfield code="a">Francesca De Amicis</subfield>
            <subfield code="a">Federica Sotgia</subfield>
            <subfield code="a">Michael P. Lisanti</subfield>
            <subfield code="a">Sebastiano Andò and Saveria Aquila</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Estrogen receptor beta (ERβ) produces autophagy and necroptosis in human seminoma cell line through the binding of the Sp1 on the phosphatase and tensin homolog deleted from chromosome 10 (PTEN) promoter gene</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2911 - 2921</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Testicular germ cell tumors are the most common tumor in male and the least studied. We focused on human seminoma using the TCAM2 cell line. Through ERβ, 10 nM estradiol (E2) was able to induce &lt;em&gt;PTEN&lt;/em&gt; gene expression and promoter transactivation. Transient transfections, ChIP and EMSA assays evidenced the 5′-flanking region of &lt;em&gt;PTEN&lt;/em&gt; gene promoter E2-responsive. The ERβ binding to the Sp1 on &lt;em&gt;PTEN&lt;/em&gt; promoter decreased cell survival. The presence of ERβ or &lt;em&gt;PTEN&lt;/em&gt; is necessary to induce the loss of cell survival upon E2, addressing their cooperation in this action. pAKT and AKT expression decreased under E2 and DPN, while known apoptotic markers appeared to be unchanged. The PI3K/AKT pathway inhibition also leads to autophagy: E2 and DPN enhanced the expression of autophagy-related markers such as PI3III, Beclin 1, AMBRA and UVRAG. MDC and TEM assays confirmed E2-induced autophagy. The absence of DNA fragmentation, caspase 9 and PARP1 cleavages suggested that necroptosis and/or parthanatos may occur. FACS analysis, LDH assay and RIP1 expression attested this hypothesis. Our study reveals a unique mechanism through which ERβ/&lt;em&gt;PTEN&lt;/em&gt; signaling induces cell death in TCAM2 by autophagy and necroptosis. These data, supporting estrogen-dependency of human seminoma, propose ERβ ligands for therapeutic use in the treatment of this pathological condition.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21336</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21336/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21386">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Nuo Yang</subfield>
            <subfield code="a">Carl D. Morrison</subfield>
            <subfield code="a">Peijun Liu</subfield>
            <subfield code="a">Jeff Miecznikowski</subfield>
            <subfield code="a">Wiam Bshara</subfield>
            <subfield code="a">Suxia Han</subfield>
            <subfield code="a">Qing Zhu</subfield>
            <subfield code="a">Angela R. Omilian</subfield>
            <subfield code="a">Xu Li and Jianmin Zhang</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">TAZ induces growth factor-independent proliferation through activation of EGFR ligand amphiregulin</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2922 - 2930</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">The Hippo signaling pathway regulates cellular proliferation and survival, thus exerting profound effects on normal cell fate and tumorigenesis. We previously showed that the pivotal effector of this pathway, YAP, is amplified in tumors and promotes epithelial-to-mesenchymal transition (EMT) and malignant transformation. Here, we report that overexpression of TAZ, a paralog of YAP, in human mammary epithelial cells promotes EMT and, in particular, some invasive structures in 3D cultures. TAZ also leads to cell migration and anchorage-independent growth in soft agar. Furthermore, we identified amphiregulin (AREG), an epidermal growth factor receptor (EGFR) ligand, as a target of TAZ. We show that AREG functions in a non-cell-autonomous manner to mediate EGF-independent growth and malignant behavior of mammary epithelial cells. In addition, ablation of TEAD binding completely abolishes the TAZ-induced phenotype. Last, analysis of breast cancer patient samples reveals a positive correlation between TAZ and AREG in vivo. In summary, TAZ-dependent secretion of AREG indicates that activation of the EGFR signaling is an important non-cell-autonomous effector of the Hippo pathway, and TAZ as well as its targets may play significant roles in breast tumorigenesis and metastasis.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21386</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21386/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21396">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Pheruza Tarapore</subfield>
            <subfield code="a">Kazuhiko Hanashiro and Kenji Fukasawa</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Analysis of centrosome localization of BRCA1 and its activity in suppressing centrosomal aster formation</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2931 - 2946</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">BRCA1, a product of a familial breast and ovarian cancer susceptibility gene, localizes to centrosomes and physically interacts with γ-tubulin, a key centrosomal protein for microtubule nucleation and anchoring at centrosomes. Here, we performed a rigorous analysis of centrosome localization of BRCA1, and found that BRCA1 is specifically associated with mother centrioles in unduplicated centrosomes, and daughter centrioles acquire BRCA1 prior to initiation of duplication, and thus duplicated centrosomes are both bound by BRCA1. We further found that BRCA1 suppresses centrosomal aster formation. In addition, we identified a new domain of BRCA1 critical for γ-tubulin binding, which confers not only its localization to centrosomes, but also its activity to suppress centrosomal aster formation.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21396</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21396/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21392">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">David A. Gillespie</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Short-circuiting the cell cycle for cancer therapy</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2777 - 2777</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Comment on: Carrassa L, et al. Cell Cycle 2012; 2507-17.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21392</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21392/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Cell Cycle News &amp; Views</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21393">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Scott Tsuchiyama and Brian K. Kennedy</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Vacuolar dynamics and replicative aging</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2778 - 2778</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Comment on: Gebre S, et al. Cell Cycle 2012; 11:2176-88.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21393</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21393/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Cell Cycle News &amp; Views</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21394">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Ashwani Khurana and Viji Shridhar</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Metformin is synthetically lethal with glucose withdrawal in cancer cells</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2779 - 2779</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Comment on: Menendez JA, et al. Cell Cycle 2012; 11: 2782-92.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21394</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21394/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Cell Cycle News &amp; Views</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21395">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Fayaz Malik</subfield>
            <subfield code="a">Hasan Korkaya</subfield>
            <subfield code="a">Shawn G. Clouthier and Max S. Wicha</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">Lin28 and HER2: Two stem cell regulators conspire to drive aggressive breast cancer</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2780 - 2781</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Comment on: Feng CN, et al. Cell Cycle 2012; 11:2486-94.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21395</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21395/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Cell Cycle News &amp; Views</subfield>
        </datafield>
    </mx:record>
    <mx:record id="21400">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4101</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Jayabal Panneerselvam</subfield>
            <subfield code="a">Hwan Ki Park</subfield>
            <subfield code="a">Jun Zhang</subfield>
            <subfield code="a">Fred Duafalia Dudimah</subfield>
            <subfield code="a">Piyan Zhang</subfield>
            <subfield code="a">Hong Wang and Peiwen Fei</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cc</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">FAVL impairment of the Fanconi anemia pathway promotes the development of human bladder cancer</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2012-08-01</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">2947 - 2955</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cell Cycle</subfield>
            <subfield code="v">11-15</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Effectiveness of DNA cross-linking drugs in the treatment of bladder cancer suggests that bladder cancer cells may have harbored an insufficient cellular response to DNA cross-link damage, which will sensitize cells to DNA cross-linking agents. Cell sensitivity benefits from deficient DNA damage responses, which, on the other hand, can cause cancer. Many changed cellular signaling pathways are known to be involved in bladder tumorigenesis; however, DNA cross-link damage response pathway [Fanconi anemia (FA) pathway], whose alterations appear to be a plausible cause of the development of bladder cancer, remains an under-investigated area in bladder cancer research. In this study, we found FAVL (variant of FA protein L—FANCL) was elevated substantially in bladder cancer tissues examined. Ectopic expression of FAVL in bladder cancer cells as well as normal human cells confer an impaired FA pathway and hypersensitivity to Mitomycin C, similar to those found in FA cells, indicating that FAVL elevation may possess the same tumor promotion potential as an impaired FA pathway harbored in FA cells. Indeed, a higher level of FAVL expression can promote the growth of bladder cancer cells in vitro and in vivo, which, at least partly, results from FAVL perturbation of FANCL expression, an essential factor for the activation of the FA pathway. Moreover, a higher level of FAVL expression was found to be associated with chromosomal instability and the invasiveness of bladder cancer cells. Collectively, FAVL elevation can increase the tumorigenic potential of bladder cancer cells, including the invasive potential that confers the development of advanced bladder cancer. These results enhance our understanding the pathogenesis of human bladder cancer, holding a promise to develop additional effective tools to fight human bladder cancer.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cc.21400</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cc/article/21400/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Report</subfield>
        </datafield>
    </mx:record>

</mx:collection>