PLOS is no longer posting on this platform. We remain fully committed to promoting PLOS Pathogens and its content and will continue to amplify our research and connect with key audiences and communities across other social media platforms.
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This will include via our PLOS LinkedIn account (linkedin.com/company/public…) and our PLOS BlueSky account (bsky.app/profile/plos.o…).
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PLOS Pathogens retweeted
With this week's #PeerReviewWeek theme ‘Innovation and Technology in Peer Review’ we’re curious to know what kinds of innovations you think would most improve the peer review process?
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PLOS Pathogens retweeted
#PeerReviewWeek is here! For an overview of this week's events from @PeerRevWeek, and quick access to PLOS peer review resources, check out our latest post on The Official PLOS Blog: plos.io/4et8UAl
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Are you signed up to receive the latest pathogens research? If not, register for our email alerts today, and never miss an article: plos.io/4fs8dYC
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"As we embark on this transformative journey, we invite our readers, authors, researchers, and clinicians across disciplines to join us in shaping the future." Discover how we're expanding our horizons: plos.io/4cvPdX6
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ICYMI: See the latest from PLOS in the biological sciences, including research from PLOS Pathogens: plos.io/3Wt59D1
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We're excited to introduce a revised scope for @PLOSPathogens! Read the scope updates, see details on how we've broadened our article formats for submission, and more in our latest Editorial: plos.io/4cvPdX6.
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In this recent article, researchers from @i2sysbio share results that reveal common patterns of receptor usage among viruses, suggesting that enveloped viruses tend to use a broader repertoire of alternative receptors than non-enveloped viruses: plos.io/3PpAWSB
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Kicking sleepers out of bed: Macrophages promote reactivation of dormant Cryptococcus neoformans by extracellular vesicle release and non-lytic exocytosis: plos.io/3tufvbk
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🔎 A sticky situation: When trypanosomatids attach to insect tissues: plos.io/487ZIxR
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🔎 The RNA world of fungal pathogens: plos.io/3tkvM2D
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Kicking sleepers out of bed: Macrophages promote reactivation of dormant Cryptococcus neoformans by extracellular vesicle release and non-lytic exocytosis: plos.io/3tufvbk
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🔎 A sticky situation: When trypanosomatids attach to insect tissues: plos.io/487ZIxR
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🔎 The RNA world of fungal pathogens: plos.io/3tkvM2D
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How are we meeting our #OpenScience initiatives at PLOS Pathogens? Learn more from our editors in this latest editorial: plos.io/3R1vZ2n
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PLOS Pathogens retweeted
Check out our latest study in @PLOSPathogens where we explore hidden strategies for the subversion of host translation by the potyvirus TuMV in Arabidopsis.
journals.plos.org/plospathogens/…
journals.plos.org/plospathogens/…
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🔎 Coinfections in the lung: How viral infection creates a favorable environment for bacterial and fungal infections: plos.io/3nLHVLf
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In this study, researchers report the discovery of high levels of the anti-immune subgenomic flaviviral RNA (sfRNA) in dengue virus 2-infected mosquito saliva: plos.io/3u9yCHv
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How are we working towards our mission to advance community-rooted adoption of #OpenScience practices in pathogens research? Our editors discuss current initiatives in our latest editorial: plos.io/3R1vZ2n
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![Fig 1. Diagrams of trypanosomatids in their motile and attached forms.
The large dark oval is the nucleus. The small dark disk is the kDNA. Green is the axoneme. Attachment plaques are shown as green lines in attached forms. A detailed description of swimming morphologies can be found in [15]. In monoxenous parasites and Leishmania spp., the attachment plaque forms at the tip of the shortened flagellum. In T. cruzi, the attachment plaque is also found at the tip but the flagellum is only slightly shorter. In T. brucei and T. congolense, the attachment plaque(s) form on the lateral portion of the flagellum.](/pic/media%2FGDBQ34dXYAATPFt.jpg)

![Fig 1. Diagrams of trypanosomatids in their motile and attached forms.
The large dark oval is the nucleus. The small dark disk is the kDNA. Green is the axoneme. Attachment plaques are shown as green lines in attached forms. A detailed description of swimming morphologies can be found in [15]. In monoxenous parasites and Leishmania spp., the attachment plaque forms at the tip of the shortened flagellum. In T. cruzi, the attachment plaque is also found at the tip but the flagellum is only slightly shorter. In T. brucei and T. congolense, the attachment plaque(s) form on the lateral portion of the flagellum.](/pic/media%2FGCTUqBOXEAAPnZG.jpg)



![Fig 1. Graphic of the major physiologic and immunologic consequences from viral infection found to be involved in secondary bacterial susceptibility described in [4].
Created with BioRender.com. Read the full caption: https://journals.plos.org/plospathogens/article?id=10.1371/journal.ppat.1011334](/pic/media%2FGBoJ0qrXEAAQRAc.jpg)

