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        <item>
            <title><![CDATA[Moving simply: <i>Naegleria</i> crawls and feeds using an ancient Arp2/3-dependent mechanism]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1766056373701-9eea3e73-54b0-491a-8779-0d00e1724278/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1083/jcb.202009031</link>
            <description><![CDATA[<p class="para" id="N65540">Dey and Baum preview work from Velle and Fritz-Laylin, which shows that <i>Naegleria</i> expresses conserved actin nucleators and generates Arp2/3-dependent lamellar protrusions.</p><p class="para" id="N65539">Arp2/3-nucleated actin filaments drive crawling motility and phagocytosis in animal cells and slime molds. In this issue, Velle and Fritz-Laylin (2020. <i>J. Cell Biol.</i>
https://doi.org/10.1083/jcb.202007158) now show that <i>Naegleria gruberi</i>, belonging to a lineage that diverged from opisthokonts around a billion years ago, uses similar mechanisms to crawl and phagocytose bacteria.</p>]]></description>
            <pubDate><![CDATA[2020-10-16T00:00]]></pubDate>
        </item><item>
            <title><![CDATA[“Neur”al brain wave: Coordinating epithelial-to-neural stem cell transition in the fly optic lobe]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1766056357805-3b312d48-3dfb-41db-9e91-4d278335858a/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1083/jcb.202009040</link>
            <description><![CDATA[<p class="para" id="N65540">Ambrosini and Röper preview work from Shard et al., which reveals Neuralized coordinates epithelial-to-neural stem cell transition in the <i>Drosophila</i> optic lobe.</p><p class="para" id="N65539">In the <i>Drosophila</i> larval optic lobe, the generation of neural stem cells involves an epithelial-to-mesenchymal–like transition of a continuous stripe of cells that sweeps across the neuroepithelium, but the dynamics at cell and tissue level were unknown until now. In this issue, Shard et al. (2020. <i>J. Cell Biol.</i>
https://doi.org/10.1083/jcb.202005035) identify that Neuralized controls a partial epithelial-to-mesenchymal transition through regulation of the apical Crumbs complex and through the coordination of cell behaviors such as apical constriction and cell alignment.</p>]]></description>
            <pubDate><![CDATA[2020-10-15T00:00]]></pubDate>
        </item><item>
            <title><![CDATA[Function through absence: Active RNA exclusion from chromosomes leads to proper cell division]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1766056215582-2430219f-52ee-426d-bc13-8648b1a8dc3f/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1083/jcb.202009193</link>
            <description><![CDATA[<p class="para" id="N65540">Teves previews work from the Blower laboratory describing the importance of RNA exclusion from chromosomes for cells to divide.</p><p class="para" id="N65539">The dynamics and functional roles of chromatin-bound RNA during cell division are largely unexplored. In this issue, Sharp et al. (2020. <i>J. Cell Biol.</i>
https://doi.org/10.1083/jcb.201910148) found that a mitosis-specific signal evicts RNA-bound SAF-A from chromosomes, and its absence leads to proper chromosome segregation.</p>]]></description>
            <pubDate><![CDATA[2020-10-14T00:00]]></pubDate>
        </item><item>
            <title><![CDATA[Mitophagy is induced by short ubiquitin chains on mitochondria]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1765973882322-69afefea-8b2e-4a64-82d4-0dce1820dfce/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1083/jcb.202008031</link>
            <description><![CDATA[<p class="para" id="N65540">Fumiyo Ikeda discusses recent work from Yamano et al. discovering a role for OPTN and ATG9A in the induction of mitophagy.</p><p class="para" id="N65539">Mitophagy has a critical role in maintaining cellular homeostasis by removing damaged mitochondria. In this issue, Yamano et al. (2020. <i>J. Cell Biol</i>. https://doi.org/10.1083/jcb.201912144) uncover that a novel complex of the autophagy adaptor optineurin and the membrane protein ATG9A specifically regulate ubiquitin-induced mitophagy.</p>]]></description>
            <pubDate><![CDATA[2020-08-27T00:00]]></pubDate>
        </item><item>
            <title><![CDATA[Long noncoding RNA amplified in lung cancer rewires cancer pathways]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1765973877511-a5d0dc16-d66e-46f5-b51a-9817c02f45a2/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1083/jcb.202007098</link>
            <description><![CDATA[<p class="para" id="N65540">Martínez-Terroba and Dimitrova preview work from Athie et al., which demonstrates that the lncRNA <i>ALAL-1</i> promotes lung cancer cell proliferation and immune evasion.</p><p class="para" id="N65539">Athie et al. (2020. <i>J. Cell Biol</i>. https://doi.org/10.1083/jcb.201908078) identify <i>ALAL-1</i>, a lncRNA frequently amplified or overexpressed in lung cancer, as an oncogenic driver, capable of promoting the proliferation and altering the immunogenicity of lung cancer cells.</p>]]></description>
            <pubDate><![CDATA[2020-08-27T00:00]]></pubDate>
        </item><item>
            <title><![CDATA[Programming pluripotent stem cells: Can't teach an old cell new DNA replication tricks]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1765973810141-bc2479bf-5b8b-48e5-9ffd-4075737c1d83/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1083/jcb.202008014</link>
            <description><![CDATA[<p class="para" id="N65540">Mouery, Mei, and Cook discuss new work from the Gerhardt laboratory showing incomplete DNA replication reprogramming in induced pluripotent stem cell lines that have lower differentiation potential.</p><p class="para" id="N65539">Pluripotent stem cells differentiate with varying efficiencies depending on the method of reprogramming that created them. In this issue, Paniza et al. (2020. <i>J. Cell Biol.</i>
https://doi.org/10.1083/jcb.201909163) demonstrate that cells with lower differentiation potential retain some features of somatic DNA replication origin utilization and suffer more frequent DNA damage.</p>]]></description>
            <pubDate><![CDATA[2020-08-27T00:00]]></pubDate>
        </item><item>
            <title><![CDATA[Necroptosis is SARMful to your health]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1765848935102-f5494214-793b-43f0-a1be-46c0c1e9e2f3/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1083/jcb.202006090</link>
            <description><![CDATA[<p class="para" id="N65540">Brian Pierchala previews work from Ko and colleagues, which shows that neuroinflammation can induce a non-canonical necroptosis pathway leading to SARM1-mediated axonal degeneration.</p><p class="para" id="N65539">Necroptosis is a cell death pathway involved in inflammation and disease. In this issue, Ko et al. (2020. <i>J. Cell Biol.</i>
https://doi.org/10.1083/jcb.201912047) link SARM1, the executioner of Wallerian degeneration of axons, to necroptosis, revealing a unique form of axonal disassembly likely involved in neurodegenerative disorders.</p>]]></description>
            <pubDate><![CDATA[2020-07-22T00:00]]></pubDate>
        </item><item>
            <title><![CDATA[Protrudin in protrudinG invadopodia: Membrane contact sites and cell invasion]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1765834381865-8e1d30fc-27ba-4086-b0d6-9c108351dba2/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1083/jcb.202006146</link>
            <description><![CDATA[<p class="para" id="N65540">Arora and Olkkonen discuss a recent study from Pedersen et al. on the role of Protrudin in cancer cell invasion.</p><p class="para" id="N65539">Invadopodia are dynamic protrusions that harbor matrix metalloproteinases for pericellular matrix degradation. However, the mechanisms underlying their maturation are poorly understood. Pedersen et al. (2020. <i>J. Cell Biol.</i>
https://doi.org/10.1083/jcb.202003063) demonstrate a dual role of Protrudin in invadopodia elongation and matrix degradation, central to cell invasion and cancer metastasis.</p>]]></description>
            <pubDate><![CDATA[2020-07-21T00:00]]></pubDate>
        </item><item>
            <title><![CDATA[ISG15 fast-tracks DNA replication]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1765821343619-4719594d-040a-4da8-a795-e36ac79d80d5/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1083/jcb.202007028</link>
            <description><![CDATA[<p class="para" id="N65540">Meroni and Vindigni preview work from the Penengo laboratory describing a new role for the interferon-stimulated gene ISG15 in DNA replication control.</p><p class="para" id="N65539">In this issue, Raso et al. (2020. <i>J. Cell Biol.</i>
https://doi.org/10.1083/jcb.202002175) uncover a novel replication fork speed regulatory network controlled by the ubiquitin-like modifier interferon-stimulated gene 15 (ISG15), which plays a central role in the innate immune response and regulates tumorigenesis as well as chemotherapy response.</p>]]></description>
            <pubDate><![CDATA[2020-07-20T00:00]]></pubDate>
        </item><item>
            <title><![CDATA[Altered Cholesterol and Lipid Synthesis Mediates Hyperinflammation in COVID-19]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1765799330815-e5fa2865-9607-4a70-8bfb-cc3cc5d24062/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1016/j.tem.2021.01.001</link>
            <description><![CDATA[<p class="para" id="N65540">Recent data have revealed that fructose-rich diet triggers inflammation and lipid synthesis. Furthermore, lipid metabolism, cholesterol synthesis and sterol regulatory element binding protein-2 (SREBP-2) activation correlates with coronavirus disease 2019 (COVID-19)-induced cytokine storm. High fructose consumption result in SREBPs activation, altered cholesterol and lipid synthesis and may establish an innate immune memory in the cells, leading to severe COVID-19 in patients with obesity.</p>]]></description>
            <pubDate><![CDATA[2021-01-08T00:00]]></pubDate>
        </item><item>
            <title><![CDATA[Stress eating: Autophagy targets nuclear pore complexes]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1765609927318-58cf12dc-4dad-452c-86ca-8908a0e018d4/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1083/jcb.202006007</link>
            <description><![CDATA[<p class="para" id="N65540">Gross and Graef preview two studies (Lee et al. and Tomioka et al.) describing the targeted degradation of nuclear pore complexes by selective autophagy.</p><p class="para" id="N65539">Lee et al. (2020. <i>Nat. Cell Biol.</i>
https://doi.org/10.1038/s41556-019-0459-2) and, in this issue, Tomioka et al. (2020. <i>J. Cell Biol.</i>
https://doi.org/10.1083/jcb.201910063) describe the targeted degradation of nuclear pore complexes (NPCs) by selective autophagy, providing insight into the mechanisms of turnover for individual nucleoporins and entire NPCs.</p>]]></description>
            <pubDate><![CDATA[2020-06-25T00:00]]></pubDate>
        </item><item>
            <title><![CDATA[Building the lipid droplet assembly complex]]></title>
            <media:thumbnail url="https://storage.googleapis.com/nova-demo-unsecured-files/unsecured/content-1765609216510-6a4e8d38-ee13-4693-9ea8-f8d7a947f63f/cover.png"></media:thumbnail>
            <link>https://www.novareader.co/book/isbn/10.1083/jcb.202006025</link>
            <description><![CDATA[<p class="para" id="N65540">Goodman previews recent work from Choudhary et al. describing how the lipid droplet assembly complex is built.</p><p class="para" id="N65539">In this issue, Choudhary et al. (2020. <i>J. Cell Biol.</i>
https://doi.org/10.1083/jcb.201910177) address the nature of the ER subdomain from which lipid droplets emanate and how several assembly proteins interact. Their data indicate that seipin/Nem1 marks these sites and provide a detailed working model for assembling the protein complex.</p>]]></description>
            <pubDate><![CDATA[2020-06-24T00:00]]></pubDate>
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