Nature Communications7:: Article number: 12485; DOI: 10.1038/ncomms12845 (2016); Published: 09222016; Updated: 11032016This Article contains errors in Fig. 3. In panel b, the axes are displaced relative to the data, and in panel c, the label ‘Species-specific GD' in red should read ‘Species-specific GD (tandem)'. The correct version of Fig. 3 appears below as


The S3 Fig(A–F): Circos plot displays mutations, copy number, and structural rearrangements in the (A) primary, (B) spinal, (C) lung, (D) liver, and (E) adrenal metastases. Translocations with significant read coverage include shared (green) and private (red) interchromosomal and shared (purple) and private (blue) intrachromosomal translocations.(PDF)Click here for additional data file.


Crimean-Congo hemorrhagic fever virus (CCHFV) is a geographically widespread RNA virus with a high degree of genomic diversity that complicates sequence-based diagnostics. Here, we sequenced eight CCHFV strains for improved assay design and deposition into FDA-ARGOS, the FDA’s pathogen database for development and verification of next generation sequencing assays. Crimean-Congo hemorrhagic fever virus (CCHFV) is a geographically widespread –6 and ge–7–Total nucleic acids were acquired from the UCC for eight CCHFV strains including IbAr 10200 (UCC# R4401), DAK8194 (UCC# R4416), SPU 128/81 UCC# R4417), SPU 115/87 (UCC# R4448), UG 3010 (UCC# R4432), JD-206 (UCC# R4413), HY-13 (UCC# R4459), and Drosdov (UCC# R4405). Each segment was amplified using a previously published protocol  modified for Nextera sequencing. The 5′ end of the M segment of JD-206 did not fully assemble, and Sanger sequencing data using the primer CCHF JD-206 MR (5′-TTCCTCCATTGTGAGATGAAGC) was used to complete the assembly.Sequencing reads were analyzed using CLC Genomics Workbench . Reads were trimmed for quality and to remove the internal L amplification primer sequences, All segments had at least 100× coverage across the genome. Segments for IbAr 10200 (M segment), Drosdov (M segment), SPU128/81 (M and S segments), UG3010 (L segment), and HY-13 (S segment) had multiple nucleotide variants resulting in amino acid changes and/or in-frame deletions. Sequencing of SPU 128/81 (L segment) and HY-13 (M segment) extended and completed the sequences already in GenBank. Sequences for SPU 115/87 , the L segment for HY-13, and the L and M segments of JD-206 have not been deposited into GenBank. Sequencing reads for all strains were deposited with NCBI Sequence Read Archive (SRA), and consensus sequences were deposited into FDA-ARGOS as the assembly qualities met database requirements.Overall, we generated 24 separate CCHFV genome segments from eight different strains. Six new sequences having nonsynonymous variants or in-frame deletions were generated for genome segments already within GenBank. Two segments in GenBank were extended to completion, and five novel segment sequences were completed.KY484034, KY484035, KY484036, KY484025, KY484026, KY484027, KY484043, KY484045, KY484044, KY484041, KY484042, KY484040, KY484046, KY484047, KY484048, KY484039, KY484038, KY484037, KY484033, KY484032, KY484031, KY484030, KY484029, and KY484028.Consensus sequences for each segment were submitted to DDBJ/EMBL/GenBank database under accession no.


Trypanosoma” is misspelled in the article title. The correct title is: Enteric Neuronal Damage, Intramuscular Denervation and Smooth Muscle Phenotype Changes as Mechanisms of Chagasic Megacolon: Evidence from a Long-Term Murine Model of Trypanosoma cruzi Infection. The correct citation is: Campos CF, Cangussú SD, Duz ALC, Cartelle CT, Noviello MdL, Veloso VM, et al. (2016) Enteric Neuronal Damage, Intramuscular Denervation and Smooth Muscle Phenotype Changes as Mechanisms of Chagasic Megacolon: Evidence from a Long-Term Murine Model of Trypanosoma cruzi Infection. PLoS ONE 11(4): e0153038. doi:10.1371/journal.pone.0153038The genus name “


Scientific Reports6: Article number: 2572710.1038/srep25727; published online: 05122016; updated: 01232017The authors neglected to cite a previously-published related paper which reports the use of PEDOT:PSS ink-jet printing to realize nanosheets for skin-contact applications. This is listed below as reference 19,20, and organic electrochemical transistors21 were also recently proposed for surface sensing applications”.“Thin film based devicesshould read:19,20, organic electrochemical transistors21 and PEDOT:PSS ink-jet printed nanosheets“Thin film based devices


Scientific Reports6: Article number: 3006910.1038/srep30069; published online: 07182016; updated: 09022016In this Article, an additional affiliation for Felipe A. Court has been omitted. The correct affiliation is listed below:Center for Integrative Biology, Universidad Mayor, Chile.


The correct title is: Musashi 1 Controls the Splicing of Photoreceptor-Specific Exons in the Vertebrate Retina. The correct citation is: Murphy D, Cieply B, Carstens R, Ramamurthy V, Stoilov P (2016) Musashi 1 Controls the Splicing of Photoreceptor-Specific Exons in the Vertebrate Retina. PLoS Genet 12(8): e1006256. doi:The publisher apologizes for the error.


The correct name is: Tahmina Monowar. The correct citation is: Haque E, Banik U, Monowar T, Anthony L, Adhikary AK (2018) Worldwide increased prevalence of human adenovirus type 3 (HAdV-3) respiratory infections is well correlated with heterogeneous hypervariable regions (HVRs) of hexon. PLoS ONE 13(3): e0194516.


Salmo salar) Smolts. The correct citation is Nuez-Ortín WG, Carter CG, Wilson R, Cooke I, Nichols PD (2016) Preliminary Validation of a High Docosahexaenoic Acid (DHA) and α-Linolenic Acid (ALA) Dietary Oil Blend: Tissue Fatty Acid Composition and Liver Proteome Response in Atlantic Salmon  Smolts. PLoS ONE 11(8): e0161513. https://doi.org/10.1371/journal.pone.0161513The title appears incorrectly. The publisher apologizes for the error. The correct title is: Preliminary Validation of a High Docosahexaenoic Acid (DHA) and α-Linolenic Acid (ALA) Dietary Oil Blend: Tissue Fatty Acid Composition and Liver Proteome Response in Atlantic Salmon (