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    <mx:record>
        <mx:leader/>
 
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4047</subfield>
        </datafield>
        <datafield tag="130" ind1="" ind2="">
            <subfield code="a">Cancer Biology &amp; Therapy</subfield>
        </datafield>
        <datafield tag="210" ind1="0" ind2="">
            <subfield code="a">cbt</subfield>
        </datafield>
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="a">Austin, Tx</subfield>
            <subfield code="b">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="310" ind1="" ind2="">
            <subfield code="a">biweekly</subfield>
        </datafield>
        <datafield tag="362" ind1="0" ind2="">
            <subfield code="a">January/February 2002 - </subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cbt</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cbt/</subfield>
        </datafield>
    </mx:record>
    <mx:record id="14101">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4047</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Casey Trimmer</subfield>
            <subfield code="a">Federica Sotgia</subfield>
            <subfield code="a">Diana Whitaker-Menezes</subfield>
            <subfield code="a">Renee M. Balliet</subfield>
            <subfield code="a">Gregory Eaton</subfield>
            <subfield code="a">Ubaldo E. Martinez-Outschoorn</subfield>
            <subfield code="a">Stephanos Pavlides</subfield>
            <subfield code="a">Anthony Howell</subfield>
            <subfield code="a">Renato V. Iozzo</subfield>
            <subfield code="a">Richard G. Pestell</subfield>
            <subfield code="a">Philipp E. Scherer</subfield>
            <subfield code="a">Franco  Capozza and Michael P. Lisanti</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cbt</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">
	Caveolin-1 and mitochondrial SOD2 (MnSOD) function as tumor suppressors in the stromal microenvironment: A new genetically tractable model for human cancer associated fibroblasts
</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2011-02-15</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">383 - 394</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cancer Biology &amp; Therapy</subfield>
            <subfield code="v">11-4</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">We have recently proposed a new model for understanding tumor metabolism, termed: &quot;The Autophagic Tumor Stroma Model of Cancer Metabolism&quot;. In this new paradigm, catabolism (autophagy) in the tumor stroma fuels the anabolic growth of aggressive cancer cells. Mechanistically, tumor cells induce autophagy in adjacent cancer-associated fibroblasts via the loss of caveolin-1 (Cav-1), which is sufficient to promote oxidative stress in stromal fibroblasts. To further test this hypothesis, here we created human Cav-1 deficient immortalized fibroblasts using a targeted sh-RNA knock-down approach. Relative to control fibroblasts, Cav-1 deficient fibroblasts dramatically promoted tumor growth in xenograft assays employing an aggressive human breast cancer cell line, namely MDA-MB-231 cells. Co-injection of Cav-1 deficient fibroblasts, with MDA-MB-231 cells, increased both tumor mass and tumor volume by ~4-fold. Immuno-staining with CD31 indicated that this paracrine tumor promoting effect was clearly independent of angiogenesis. Mechanistically, proteomic analysis of these human Cav-1 deficient fibroblasts identified &gt; 40 protein biomarkers that were upregulated, most of which were associated with i) myofibroblast differentiation, or ii) oxidative stress/hypoxia. In direct support of these findings, the tumor promoting effects of Cav-1 deficient fibroblasts could be functionally suppressed (nearly 2-fold) by the recombinant over-expression of SOD2 (superoxide dismutase 2), a known mitochondrial enzyme that de-activates superoxide, thereby reducing mitochondrial oxidative stress. In contrast, cytoplasmic soluble SOD1 had no effect, further highlighting a specific role for mitochondrial oxidative stress in this process. In summary, here we provide new evidence directly supporting a key role for a loss of stromal Cav-1 expression and oxidative stress in cancer-associated fibroblasts, in promoting tumor growth, which is consistent with &quot;The Autophagic Tumor Stroma Model of Cancer&quot;. The human Cav-1 deficient fibroblasts that we have generated are a new genetically tractable model system for identifying other suppressors of the cancer-associated fibroblast phenotype, via a genetic &quot;complementation&quot; approach. This has important implications for understanding the pathogenesis of triple negative and basal breasts cancers, as well as tamoxifen-resistance in ER+ breast cancers, which are all associated with a Cav-1 deficient &quot;lethal&quot; tumor micro-environment, driving poor clinical outcome.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cbt.11.4.14101</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cbt/article/14101/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Research Paper</subfield>
        </datafield>
    </mx:record>
    <mx:record id="14097">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4047</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Greta Garrido</subfield>
            <subfield code="a">Ilia A. Tikhomirov</subfield>
            <subfield code="a">Ailem Rabasa</subfield>
            <subfield code="a">Eric Yang</subfield>
            <subfield code="a">Elías Gracia</subfield>
            <subfield code="a">Normando Iznaga</subfield>
            <subfield code="a">Luis E.  Fernández</subfield>
            <subfield code="a">Tania Crombet</subfield>
            <subfield code="a">Robert S. Kerbel and Rolando Pérez</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cbt</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">
	Bivalent binding by intermediate affinity of nimotuzumab: A contribution to explain antibody clinical profile
</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2011-02-15</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">373 - 382</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cancer Biology &amp; Therapy</subfield>
            <subfield code="v">11-4</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Nimotuzumab is an EGFR-targeting antibody that has demonstrated encouraging clinical results in the absence of severe side-effects observed with other approved anti-EGFR antibodies. We investigated whether different clinical behavior of nimotuzumab is related to its bivalent/monovalent binding profile. Binding properties of nimotuzumab and cetuximab, the most development of anti-EGFR antibodies, were studied in vitro using chip surfaces and cells with varying EGFR expression levels. Experimental observations demonstrated that in contrast to cetuximab, the intrinsic properties of nimotuzumab required bivalent binding for stable attachment to the cellular surface, leading to nimotuzumab selectively binding to cells that express moderate to high EGFR expression levels. At these conditions, both antibodies bound bivalently, and accumulated to similar degrees. When EGFR density is low, nimotuzumab monovalent interaction was transient, whereas cetuximab continued to interact strongly with the receptors. We compared the in vitro anti-tumor efficacy of nimotuzumab and cetuximab. Cetuximab decreased the cell viability and induced apoptosis for all the tested cell lines, effects which did not depend on EGFR expression level. In contrast, nimotuzumab also provoked significant anti-cellular effects, but its anti-tumor capacity decreased together with EGFR expression level. Cetuximab Fab fragment was able to impact tumor cell survival, whereas nimotuzumab fragment totally lost this effect. Tumor-xenograft experiments using cells with a high EGFR expression revealed similar tumor growth inhibiting effects for both antibodies. This study suggests an explanation for nimotuzumab clinical profile, whereby antitumor activity is obtained in absence of severe toxicities due to its properties of bivalent binding to EGFR.&lt;p&gt;&lt;/br&gt;
	See commentary: &lt;a href=&quot;http://www.landesbioscience.com/journals/cbt/article/14920/&quot;&gt;Don’t jump to rash conclusions&lt;/a&gt;</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cbt.11.4.14097</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cbt/article/14097/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Research Paper</subfield>
        </datafield>
    </mx:record>
    <mx:record id="14100">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4047</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Zheng-Cai Jia</subfield>
            <subfield code="a">Yi Tian</subfield>
            <subfield code="a">Ze-Min Huang</subfield>
            <subfield code="a">Jing-Xue Wang</subfield>
            <subfield code="a">Xiao-Lan Fu</subfield>
            <subfield code="a">Bing Ni and Yu-Zhang Wu</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cbt</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">
	Identification of a new MAGE-A10 antigenic peptide presented by HLA-A*0201 on tumor cells
</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2011-02-15</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">395 - 400</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cancer Biology &amp; Therapy</subfield>
            <subfield code="v">11-4</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">MAGE-A antigens belong to cancer/testis (CT) antigens that are expressed in tumors but not in normal tissues with the exception of testis and placenta. Among MAGE-A antigens, MAGE-A10 is extensively expressed in various histological types of tumors, representing an attractive target for tumor immunotherapy. Cytotoxic T lymphocytes (CTLs) play a key role in anti-tumor immune responses, so the identification of CTL epitopes derived from MAGE-A10 would contribute a lot to the design of epitope-based vaccines for tumor patients. In this study, we predicted HLA-A*0201-restricted CTL epitope peptides of MAGE-A10, followed by peptide/HLA-A*0201 binding affinity and complex stability assays, and induced peptide-specific CTL immune responses. Of the selected three peptides (designated P1, P2 and P3), P1 (MAGE-A10310-318, SLLKFLAKV) could elicit peptide-specific CTLs both in vitro from HLA-A*0201-positive PBMCs and in HLA-A*0201/Kb transgenic mice. And, the induced CTLs could lyse MAGE-A10-expressing tumor cells in a HLA-A*0201-restricted fashion but not MAGE-A10-negative tumor cells. Our results demonstrate that the peptide MAGE-A10310-318 is a HLA-A*0201-restricted CTL epitope of MAGE-A10 and could serve as a target for therapeutic antitumoral vaccination.</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cbt.11.4.14100</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cbt/article/14100/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Research Paper</subfield>
        </datafield>
    </mx:record>
    <mx:record id="14178">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4047</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Hongxin Deng</subfield>
            <subfield code="a">Qingyuan Jiang</subfield>
            <subfield code="a">Yang Yang</subfield>
            <subfield code="a">Shuang Zhang</subfield>
            <subfield code="a">Yongping Ma</subfield>
            <subfield code="a">Gang Xie</subfield>
            <subfield code="a">Xiang Chen</subfield>
            <subfield code="a">Zhiyong Qian</subfield>
            <subfield code="a">Yanjun Wen</subfield>
            <subfield code="a">Jiong Li</subfield>
            <subfield code="a">Jinliang Yang</subfield>
            <subfield code="a">Lijuan Chen</subfield>
            <subfield code="a">Xia Zhao and Yuquan Wei</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cbt</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">
	Intravenous liposomal delivery of the short hairpin RNAs against Plk1 controls the growth of established human hepatocellular carcinoma
</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2011-02-15</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">401 - 409</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cancer Biology &amp; Therapy</subfield>
            <subfield code="v">11-4</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">&lt;p&gt;
	Polo-like kinase 1 (Plk1) is a key cell cycle regulator that is frequently overexpressed in human hepatocellular carcinomas. Blockade of the Plk1 pathway has been reported to be capable of inducing anti-tumor effect. Here, plasmids containing U6 promoter-driven shRNAs against human Plk1 were constructed and transfected in human hepatocellular carcinoma cell line HepG2. ShRNA targeting Plk1 almost completely reduced Plk1 expression in HepG2 hepatocellular carcinoma cells, as confirmed by RT-PCR and Western blot. As a consequence, HepG2 cells exhibited reduced proliferation and enhanced apoptosis in vitro. Most importantly, Treatment with Plk shRNA-DOTAP:Chol complex significantly suppressed the growth of HepG2 xenografts, accompanied with phenotypic changes in tumor cells, including proliferation inhibition and apoptosis induction. Our study suggested that shRNA-mediated silencing of Plk1 might be a novel therapeutic approach against human hepatocellular carcinoma by inhibiting tumor cells proliferation and inducing apoptosis.&lt;/p&gt;
</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cbt.11.4.14178</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cbt/article/14178/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Research Paper</subfield>
        </datafield>
    </mx:record>
    <mx:record id="14180">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4047</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Ahmed A. Mohamed</subfield>
            <subfield code="a">Shyh-Han Tan</subfield>
            <subfield code="a">Chen Sun</subfield>
            <subfield code="a">Syed Shaheduzzaman</subfield>
            <subfield code="a">Ying Hu</subfield>
            <subfield code="a">Gyorgy Petrovics</subfield>
            <subfield code="a">Yongmei Chen</subfield>
            <subfield code="a">Isabell A. Sesterhenn</subfield>
            <subfield code="a">Hua Li</subfield>
            <subfield code="a">Taduru Sreenath</subfield>
            <subfield code="a">David G. McLeod</subfield>
            <subfield code="a">Albert Dobi and Shiv Srivastava</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cbt</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">
	&lt;em&gt;ERG&lt;/em&gt; oncogene modulates prostaglandin signaling in prostate cancer cells
</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2011-02-15</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">410 - 417</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cancer Biology &amp; Therapy</subfield>
            <subfield code="v">11-4</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Androgen dependent induction of the ETS related gene (ERG) expression in more than half of all prostate cancers results from gene fusions involving regulatory sequence of androgen regulated genes (i.e. TMPRSS2, SLC45A3 and NDRG1) and protein coding sequence of the ERG. Emerging studies in experimental models underscore the functions of ERG in prostate tumorigenesis. However, biological and biochemical functions of ERG in prostate cancer (CaP) remain to be elucidated. This study suggests that ERG activation plays a role in prostaglandin signaling because knockdown of ERG expression in TMPRSS2-ERG fusion containing CaP cells leads to altered levels of the 15-hydroxy-prostaglandin dehydrogenase (HPGD), a tumor suppressor and prostaglandin catabolizing enzyme, and prostaglandin E2 (PGE2) . We demonstrate that HPGD expression is regulated by the binding of the ERG protein to the core promoter of this gene. Moreover, prostaglandin E2 dependent cell growth and urokinase-type plasminogen activator (uPA) expression are also affected by ERG knockdown. Together, these data imply that the ERG oncoprotein in CaP cells positively influence prostaglandin mediated signaling, which may contribute to tumor progression.   &lt;p&gt;&lt;/br&gt;
	See commentary: &lt;a href=&quot;http://www.landesbioscience.com/journals/cbt/article/14499/&quot;&gt;Gene fusions find an ERG-way to tumor inflammation &lt;/a&gt;</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cbt.11.4.14180</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cbt/article/14180/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Research Paper</subfield>
        </datafield>
    </mx:record>
    <mx:record id="14183">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4047</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">James C. Forde</subfield>
            <subfield code="a">Elaina N. Maginn</subfield>
            <subfield code="a">Gillian McNamara</subfield>
            <subfield code="a">Lynn M. Martin</subfield>
            <subfield code="a">Guiseppe Campiani</subfield>
            <subfield code="a">D. Clive Williams</subfield>
            <subfield code="a">Daniela Zisterer</subfield>
            <subfield code="a">Anthony M. McElligott</subfield>
            <subfield code="a">Mark Lawler</subfield>
            <subfield code="a">Thomas H. Lynch</subfield>
            <subfield code="a">Donal Hollywood and Laure Marignol</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cbt</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">
	Microtubule-targeting-compound PBOX-15 radiosensitizes cancer cells in vitro
</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2011-02-15</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">421 - 428</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cancer Biology &amp; Therapy</subfield>
            <subfield code="v">11-4</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">&lt;p&gt;
	Background&lt;br /&gt;
	We proposed to investigate the radiosensitizing properties of PBOX-15, a novel microtubule-disrupting agent, in a panel of cancer cell lines. &lt;br /&gt;
	Results&lt;br /&gt;
	PBOX-15 treatment was associated with significant cell kill and increased radiosensitivity in all three cell lines tested. The number of surviving cells in response to the combined treatment was significantly less than PBOX -15 alone in 22Rv1 cells. In these cells, radiosensitisation correlated with induction of G2/M cell cycle arrest by PBOX-15. The compound sustained its activity and increased HIF-1&amp;Alpha; expression under hypoxic conditions. PBOX-15 prevented onset of hypoxia-induced radioresistance in hypoxic prostate cells and reduced the surviving fraction of irradiated hypoxic cells to levels similar to those achieved under aerobic conditions.&lt;br /&gt;
	Methods&lt;br /&gt;
	Clonogenic assays were used to determine sensitivity of a panel of cancer cell lines (22Rv1, A549, U87) to PBOX-15 alone or in combination with a single 2Gy dose fraction. Induction of cell cycle arrest and apoptosis was investigated in 22Rv1 prostate cancer cells. The cytotoxic properties of the compound under hypoxic conditions were correlated with Hypoxia Inducible Factor 1 alpha (HIF-1&amp;Alpha;) gene and protein expression levels and its radiosensitisation potential was investigated in hypoxic 22Rv1 using clonogenic assays. &lt;br /&gt;
	Conclusions&lt;br /&gt;
	This preliminary data identifies the potential of PBOX-15 as a novel radiosensitising agent for the management of solid tumours and eradication of hypoxic cells.&lt;/p&gt;
</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cbt.11.4.14183</subfield>
            <subfield code="u">http://www.landesbioscience.com/journals/cbt/article/14183/</subfield>
        </datafield>
 
        <datafield tag="949" ind1="" ind2="">
            <subfield code="t">article</subfield>
            <subfield code="n">Research Paper</subfield>
        </datafield>
    </mx:record>
    <mx:record id="14499">
        <mx:leader/>
        <datafield tag="022" ind1="" ind2="">
            <subfield code="a">1538-4047</subfield>
        </datafield>
        <datafield tag="100" ind1="" ind2="">
            <subfield code="a">Sarah K. Martin and Natasha Kyprianou</subfield>
        </datafield>
        
        <datafield tag="210" ind1="" ind2="">
            <subfield code="a">cbt</subfield>
        </datafield>
        
        <datafield tag="245" ind1="" ind2="">
            <subfield code="a">
	Gene fusions find an ERG-way to tumor inflammation
</subfield> 
        </datafield>
        
        <datafield tag="260" ind1="3" ind2="">
            <subfield code="b">Landes Bioscience</subfield>
            <subfield code="c">2011-02-15</subfield>
        </datafield>
        
        <datafield tag="302" ind1="" ind2="">
            <subfield code="a">418 - 420</subfield>
        </datafield>
        
        <datafield tag="440" ind1="" ind2="">
            
            <subfield code="a">Cancer Biology &amp; Therapy</subfield>
            <subfield code="v">11-4</subfield>
        </datafield>
        <datafield tag="449" ind1="" ind2="">
            <subfield code="o">Landes Bioscience</subfield>
        </datafield>
        <datafield tag="520" ind1="3" ind2="">
            <subfield code="a">Commentary to: &lt;a href=&quot;http://www.landesbioscience.com/journals/cbt/article/14180/&quot;&gt;&lt;em&gt;ERG&lt;/em&gt; oncogene modulates prostaglandin signaling in prostate cancer cells&lt;/a&gt; Ahmed A. Mohamed, Shyh-Han Tan, Chen Sun, Syed Shaheduzzaman, Ying Hu, Gyorgy Petrovics, Yongmei Chen, Isabell A. Sesterhenn, Hua Li, Taduru Sreenath, David G. McLeod, Albert Dobi and Shiv Srivastava</subfield>
        </datafield>
        <datafield tag="856" ind1="4" ind2="">
            
            <subfield code="u">http://dx.doi.org/10.4161/cbt.11.4.14499</subfield>
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