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Clc genomic workbench v 10

Manufactured by Qiagen
Sourced in Germany

The CLC Genomic Workbench v.10 is a bioinformatics software designed for analysis of genomic data. It provides a suite of tools for tasks such as sequence assembly, annotation, and comparative analysis. The software is available for Windows, macOS, and Linux platforms.

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8 protocols using clc genomic workbench v 10

1

Complete Chloroplast Genome Assembly and Annotation of Aconitum Species

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For each Aconitum species, reads of the cp genome were assembled using CLC Genomic Workbench v10 (CLC Bio., Aarhus, Denmark). All the contigs were checked against the reference genome of A. chiisanense (KT820665), using BLAST (https://blast.ncbi.nlm.nih.gov/) and aligned contigs were oriented according to the reference genome. The complete cp genomes were then constructed using Geneious v4.8.5 (Biomatters Ltd., Auckland, New Zealand).
The annotation of cp genome sequence was performed using DOGMA (http://dogma.ccbb.utexas.edu/) [39 (link)] and start/stop codons and intron/exon boundaries were adjusted in Geneious v4.8.5. The tRNA was identified through tRNAscan-SE v2.0 [40 (link)]. The circular genome map was generated in OGDRAW (http://ogdraw.mpimp-golm.mpg.de/) [41 (link)].
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2

Chloroplast Genome Assembly from Illumina Sequencing

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The chloroplast genome was amplified in overlapping fragments according to the methods described by Yang et al. (2014) (link) at Germplasm Bank of Wild Species, Kunming Institute of Botany, Chinese Academy of Sciences. DNA samples were sheared into fragments of about 500 bp and used to construct libraries following the manufacturer’s instructions (Illumina, San Diego, CA, United States). Paired-end sequencing was conducted on Illumina HiSeq X-Ten platform. Raw reads were quality trimmed and the clean data were assembled after removing adapters using CLC Genomic Workbench v10 (CLC Bio., Aarhus, Denmark). Moreover, the raw sequencing data had been deposited in SRA (PRJNA504924). And then, the contigs were checked using BLAST searches2 against the available complete chloroplast sequence of A. paniculata (NC_022451). Relative position and direction of each contigs were manually adjusted according to the reference genome. Finally, the complete chloroplast genome was acquired in Geneious v.8.1 (Kearse et al., 2012 (link)). Annotation of the chloroplast genome was conducted using OGDRAW (Lohse et al., 2013 (link)). The genome map of the species was illustrated with the help of CPGAVAS (Liu et al., 2012 (link)), and the annotated chloroplast genome sequences were submitted to NCBI under accession numbers: MF490441, MH045155, MH045156, and MH045157.
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3

Whole Genome Sequencing of K. pneumoniae

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Genomic DNA for whole genome sequencing was prepared using MasterPure DNA Purification Kit (Epicentre Technologies, Madison, Wisconsin). Pacific Biosciences sequencing was performed at the Science for Life laboratories sequencing platform at Uppsala University using Pacific Biosciences II technology and Illumina MiSeq was performed in-house using the NexteraXT technology. CLC Genomic Workbench v 10 (CLC Bio/Qiagen) with Microbial Genomics Module and Microbial Genome Finishing Tools was used for de novo assembly of reads and of reference assembly and variance analysis to K. pneumoniae LN824133. The sequence data including raw sequence reads and assembled contigs of the chromosome and plasmids have been deposited at NCBI with accession numbers CP024429-CP024436 under BioProject PRJNA348457.
The contigs were submitted to the ResFinder and PlasmidFinder databases at the Centre of Genomic Epidemiology (www.genomicepidemiology.org) to identify antibiotic resistance genes and plasmid replicons [26 (link)–28 (link)]. MLST was performed by submitting contigs at Institut Pasteur MLST Databases (http://www.pasteur.fr/mlst/).
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4

Deciphering Sea Lice Microbiome

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The CDS obtained from the different bacterial clusters were compared with the genes annotated in the last version of the C. rogercresseyi genome58 (link) to predict possible biological roles of sea lice microbiota. All the CDS were translated to proteins using the CLC genomic workbench (V10, Qiagen). The predicted proteins for both C. rogercresseyi and the bacterial clusters were annotated with KEGG Automatic Annotation Server (KAAS)66 (link) through a bi-directional best hit (BBH) method to assign orthologs and selecting GHOST X search engine. The resulting pathways were then compared to find metabolic complementarity between the sea lice and the genome clusters composing in sea lice microbiota.
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5

Comprehensive RNA-seq Data Analysis Pipeline

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RNA-seq reads were trimmed for the presence of adaptor sequences, and for quality, using TrimGalore! [50 ], allowing for a maximum of two ambiguous bases and a quality threshold of PHRED20. Trimmed reads were de novo assembled using CLC Genomic Workbench v.10 (Qiagen, Hilden, Germany), setting automatic word and bubble sizes, and a minimal contig length of 200 bp. The resulting contigs were subjected to open reading frame (ORF) prediction, using the transdecoder tool included in the Trinity suite [51 (link)], applying a minimal ORF length of 100 codons. HMMer v.3.1 [52 (link)] was used to identify the presence of conserved protein domains (Pfam-A models, v.29 [53 (link)], applying a cut-off E-value of 10−5.
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6

Illumina Sequencing and Variant Detection of Pennisetum orientale

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Genomic DNA was Illumina sequenced (PE150) with the NextSeq 500 V2 platform with minimal 2 Gb output per sample. The NEBNext® Ultra DNA Library Prep Kit for Illumina (New England Biolabs, Ipswich, USA) was used to process the samples. Fragmentation of the DNA using the Bioruptor Pico (Diagenode, Liège, Belgium), ligation of sequencing adapters, and PCR amplification of the resulting product were performed according to the procedure described in the NEBNext Ultra DNA Library Prep Kit for Illumina Instruction Manual. Reads were reference assemble to the rbcL, trnH‐psbA spacer, and ITS sequences of a Pennisetum orientale specimen (NPPO‐NL 6148331) using CLC genomic workbench v10 (Qiagen) with default settings. Variants were detected by using the Basic Variant Detection tool in CLC genomic workbench v10 with default settings.
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7

Metagenomic Assembly and Binning Pipeline

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Raw reads from metagenomic sequencing were filtered using a trim tool (quality limit = 0.03, maximum ambiguous nucleotides = 2 and minimum length = 80) in CLC Genomic Workbench v.10 software (Qiagen, Hilden, Germany). Metagenomic assemblies were obtained using the metaSPAdes v3.15.5 with default settings [13 (link)]. Contigs with a length less than 500 bp were eliminated from the final assemblies. Binning to produce MAGs was performed using the metaWRAP v1.3.2 pipeline [14 (link)] with three tools: CONCOCT v.1.1.0 [15 (link)], MaxBin2 v.2.2.7 [16 (link)] and metaBAT2 v.2.12.1 [17 (link)]. Bin sets from different binning tools were consolidated using the Bin_refinement module of metaWRAP with the following parameters: a minimal completeness of 50% and a maximal contamination of 10%.
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8

Genome Characterization of Carbapenemase-Producing K. pneumoniae

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Six carbapenemase-producing K. pneumoniae clinical isolates (KP#181, KP#182, KP#191, KP#192, KP#201, KP#202) were selected from the Reference Laboratory for the Surveillance and Control of Nosocomial Infections and Prudent Use of Antimicrobials Program in Andalucía (PIRASOA program, Hospital Universitario Virgen Macarena, Seville, Spain) because of their susceptibility to temocillin. Molecular typing and characterization of the antimicrobial resistance determinants of the clinical isolates and those derived from the hollow-fibre infection model (HFIM) experiment were performed by WGS using the MiSeq system (Illumina, San Diego, CA, USA). The DNA sample library was prepared using the Nextera XT DNA library preparation kit (Illumina). Raw reads were quality filtered and assembled de novo using CLC Genomic Workbench v10 (QIAGEN). ST was assigned using MLSTFinder databases (https://cge.food.dtu.dk/services/MLST/) and the annotation of the antimicrobial resistance determinants was carried out using ResFinder 4.4.1 (http://genepi.food.dtu.dk/resfinder).14 (link)
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