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Thermo proteome discoverer software

Manufactured by Thermo Fisher Scientific
Sourced in United Kingdom

Thermo Proteome Discoverer software is a bioinformatics tool used for the analysis and identification of proteins in mass spectrometry-based proteomics experiments. The software provides a comprehensive suite of tools for data processing, protein identification, and data management.

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5 protocols using thermo proteome discoverer software

1

Functional Enrichment Analysis of Omics Data

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For the functional enrichment analysis, the clusterProfiler was used for GO term enrichment, followed by the Biological process analysis using the KEGG pathway database. The data from NGS and proteome were sorted based on fold change in gene/protein expression. We represented the RNASeq and the proteomic data on a log scale using log2 fold change, considering a p-value less than 0.05 as significant. Since this representation is logarithmic and not linear, control values are not normalized to 1.0. Therefore, a value more than 0.0 is considered for increased expression, and a value less than 0.0 is considered for decreased expression. We used Thermo Proteome discoverer software (2.2.0.388) for the label-free quantification of the protein IDs. The contaminants, such as keratin, were removed from the raw data (in the case of the proteome), and the resulting data were normalized against parental cells. The upregulated and downregulated transcripts/proteins from OE and KD were used for analysis using STRING (www:http//string-db.org) and ShinyGo 0.76.2 (www:http//bioinformatics.sdstate.edu). Similarly, we analyzed the proteomics data obtained from the TAP system too. The data also generated from KEGG for different pathways38 (link)–40 (link).
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2

Proteomic Analysis of Bat Samples

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Thermo Proteome Discoverer software (v 2.2, Thermo Fisher Scientific) was used to generate peak lists followed by combined search using Mascot 2.6.1 engine (Matrix Science) against target-decoy Bat customized database with following parameters: Fixed modifications: Carbamidomethyl cysteine and TMT10-plex labelling on N-terminus peptide and Lysine. Variable modifications: Oxidated (M), Deamidated (NQ) and acetylated protein N-terminus were set as variable modifications. Mass accuracy for MS 20ppm, for fragment ions MS/MS 0.06Da, Enzyme: Trypsin/P with 3 missed cleavages allowed. FDR cut off for PSM and peptides was of 1% for high and 5% for medium confidence peptides.
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3

Tandem Mass Spectrometry Protein Identification

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All tandem mass spectra were analysed using Thermo Proteome Discoverer software (v. 1.2, Thermo Scientific) with the Mascot search engine (v. 2.3.2 Matrix Science, London, UK) and the NCBI database version April 2012. The search parameters were set to bony vertebrates, MS accuracy of 5 ppm, MS/MS accuracy of 0.5 Da (for fragmentation in the linear ion trap with CID), one missed cleavage by trypsin allowed, dynamic carbamidomethyl modification of cysteine (previous tests show that this modification is not 100%), and oxidised methionine. For protein identification, the minimum criteria were two tryptic peptides matched at or above the 99% confidence level, allowing only rank-one peptides and peptides in top-score proteins. No decoy database was used, but the highest confidence level for Mascot significance threshold together with two or several peptides for one protein that can ensure the identification.
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4

Tumor-Specific Proteomic Profiling by LC-MS/MS

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The LC-MS/MS data were collected in data-dependent mode switching between one full scan MS mode (m/z 380-1400, resolution 60 K, AGC 3e6, max ion time 20 ms), and 10 MS/MS scans (resolution 15 K, AGC 1e5, max ion time 120 ms, nCE 27) of the top 10 target ions. The ions were sequenced once and then dynamically excluded from the list for 30 s. The MS raw data sets were analyzed using Thermo Proteome Discoverer Software (version 2.3). The spectrum files were recalibrated using Trypsin or LysC digested indexed Human UniProt database, and peptide spectrums were searched against a tumor-specific custom database using the Sequest HT algorithm at precursor mass tolerance of 10 ppm, and fragment mass tolerance of 0.02 Da. Methionine oxidation and N-terminus acetylation were specified as dynamic modifications. For each tumor, a fully- and a partially-digested search was performed. Peptides and proteins were filtered using a Percolator at a target FDR of 0.01 and a Xcorr > 1.
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5

Plant Proteome Database Search

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Raw files were acquired with Xcalibur 2.1.0 and converted into MGF format by Thermo Proteome Discoverer software v. 1.1.0.263 (Thermo Scientific, CA). The exported MGF files were searched against the local database downloaded from UniProtKB (Taxonomy: Viridiplantae, containing 36,020 sequences) with the MASCOT software (version 2.3, installed on a local server). The search criteria were as follows: enzyme, trypsin; fixed modification, carbamidomethyl (cysteine); variable modification, oxidation (methionine); peptide tolerance, 10 ppm; fragment mass tolerance, ±0.6 Da; peptide charge state, 2+, 3+; instrument profile, ESI-Trap; and one max missed cleavage. Hits were considered high confidence if at least three peptides were matched with ion scores >25 or proteins were identified by one or two peptides with score ≥40.
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