| scholarly article | Q13442814 |
| P50 | author | James David Chappell | Q91489970 |
| P2093 | author name string | Terence S Dermody | |
| Takeshi Kobayashi | |||
| Laura S Ooms | |||
| Mine Ikizler | |||
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| P433 | issue | 2 | |
| P407 | language of work or name | English | Q1860 |
| P304 | page(s) | 194-200 | |
| P577 | publication date | 2009-12-29 | |
| P1433 | published in | Virology | Q7934867 |
| P1476 | title | An improved reverse genetics system for mammalian orthoreoviruses | |
| P478 | volume | 398 |
| Q40197777 | A Point Mutation in the Rhesus Rotavirus VP4 Protein Generated through a Rotavirus Reverse Genetics System Attenuates Biliary Atresia in the Murine Model |
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| Q37644034 | An ITAM in a nonenveloped virus regulates activation of NF-κB, induction of beta interferon, and viral spread |
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| Q39406121 | Cell entry-associated conformational changes in reovirus particles are controlled by host protease activity |
| Q40055051 | Characterization of a replicating mammalian orthoreovirus with tetracysteine tagged μNS for live cell visualization of viral factories |
| Q47234337 | Cleavage of the C-terminal fragment of reovirus μ1 is required for optimal infectivity |
| Q36253330 | Comparative analysis of Reoviridae reverse genetics methods |
| Q36373033 | Comparison of three neurotropic viruses reveals differences in viral dissemination to the central nervous system |
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| Q92964740 | Disruption of Type III Interferon (IFN) Genes Ifnl2 and Ifnl3 Recapitulates Loss of the Type III IFN Receptor in the Mucosal Antiviral Response |
| Q34276415 | Dual selection mechanisms drive efficient single-gene reverse genetics for rotavirus |
| Q33743895 | Efficient norovirus and reovirus replication in the mouse intestine requires microfold (M) cells. |
| Q36956100 | Engineering Recombinant Reoviruses To Display gp41 Membrane-Proximal External-Region Epitopes from HIV-1 |
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| Q40352768 | Entirely plasmid-based reverse genetics system for rotaviruses |
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| Q38744368 | Establishment of different plasmid only-based reverse genetics systems for the recovery of African horse sickness virus |
| Q31137956 | Experimental pathways towards developing a rotavirus reverse genetics system: synthetic full length rotavirus ssRNAs are neither infectious nor translated in permissive cells |
| Q38721800 | Expression of Ifnlr1 on Intestinal Epithelial Cells Is Critical to the Antiviral Effects of Interferon Lambda against Norovirus and Reovirus |
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| Q38809456 | Lipid Membranes Facilitate Conformational Changes Required for Reovirus Cell Entry. |
| Q39163586 | Lipids Cooperate with the Reovirus Membrane Penetration Peptide to Facilitate Particle Uncoating |
| Q36155563 | Mechanisms of reovirus bloodstream dissemination |
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| Q26775033 | Potential for Improving Potency and Specificity of Reovirus Oncolysis with Next-Generation Reovirus Variants |
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| Q36850813 | Reovirus activates a caspase-independent cell death pathway. |
| Q40254093 | Reovirus infection triggers inflammatory responses to dietary antigens and development of celiac disease. |
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| Q40200095 | Reverse Genetics for Mammalian Orthoreovirus |
| Q59350530 | Reverse Genetics for Peste des Petits Ruminants Virus: Current Status and Lessons to Learn from Other Non-segmented Negative-Sense RNA Viruses |
| Q97564052 | Reverse genetics approaches: a novel strategy for African horse sickness virus vaccine design |
| Q30405337 | Reverse genetics for mammalian reovirus |
| Q41962337 | Reverse genetics of rotavirus |
| Q92376467 | Rotavirus Species B Encodes a Functional Fusion-Associated Small Transmembrane Protein |
| Q91760731 | Selection and Characterization of a Reovirus Mutant with Increased Thermostability |
| Q32183285 | Serotype-Specific Killing of Large Cell Carcinoma Cells by Reovirus. |
| Q38321514 | Serotype-specific differences in inhibition of reovirus infectivity by human-milk glycans are determined by viral attachment protein σ1. |
| Q27675479 | The GM2 Glycan Serves as a Functional Coreceptor for Serotype 1 Reovirus |
| Q40088760 | The reovirus μ1 340-343 loop controls entry related conformational changes. |
| Q36685206 | The sweet spot: defining virus-sialic acid interactions |
| Q39088516 | The μ1 72-96 loop controls conformational transitions during reovirus cell entry. |
| Q38700849 | Two-plasmid system to increase the rescue efficiency of paramyxoviruses by reverse genetics: The example of rescuing Newcastle Disease Virus |
| Q41080969 | Viral gene expression potentiates reovirus-induced necrosis. |
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