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It supports statistical testing, control-based normalization, replicate-aware quality control, and customizable scientific plots. 
Its microbial growth-curve module analyzes optical-density time series and automatically extracts quantitative growth parameters, including maximum specific growth rate (&#181;Max), doubling time, lag time, maximum optical density (ODmax), time to maximum growth, area under the curve (AUC), and initial optical density (OD0). 
Results can be exported as processed datasets, statistical summaries, analysis metadata, scientific graphics, and editable PowerPoint figures.</description><homepage>https://github.com/bioszen/BIOSZEN</homepage><biotoolsID>bioszen</biotoolsID><biotoolsCURIE>biotools:bioszen</biotoolsCURIE><version>2.1.1</version><toolType>Desktop application</toolType><toolType>Web application</toolType><topic><uri>http://edamontology.org/topic_0092</uri><term>Data visualisation</term></topic><topic><uri>http://edamontology.org/topic_2269</uri><term>Statistics and probability</term></topic><topic><uri>http://edamontology.org/topic_3301</uri><term>Microbiology</term></topic><operatingSystem>Windows</operatingSystem><operatingSystem>Mac</operatingSystem><language>R</language><license>GPL-3.0</license><cost>Free of charge</cost><accessibility>Open access</accessibility><function><operation><uri>http://edamontology.org/operation_2238</uri><term>Statistical calculation</term></operation><operation><uri>http://edamontology.org/operation_0337</uri><term>Visualisation</term></operation><note>Statistical analysis, control-based normalization, replicate-aware quality control, and customizable visualization of experimental biological data from Excel or CSV files.</note></function><function><operation><uri>http://edamontology.org/operation_2238</uri><term>Statistical calculation</term></operation><operation><uri>http://edamontology.org/operation_2945</uri><term>Data analysis</term></operation><operation><uri>http://edamontology.org/operation_0337</uri><term>Visualisation</term></operation><note>Analysis and visualization of microbial optical-density time series, including extraction of uMax, max_percap_time, doubling time, lag time, ODmax, max_time, AUC, OD0, and related growth parameters.</note></function><link><url>https://github.com/bioszen/BIOSZEN</url><type>Repository</type><note>Source code, example files, documentation, and development history.</note></link><link><url>https://github.com/bioszen/BIOSZEN/issues</url><type>Issue tracker</type><note>Bug reports, installation problems, and feature suggestions.</note></link><link><url>https://bioszen-test.share.connect.posit.cloud</url><type>Service</type><note>Limited online demonstration of the BIOSZEN Shiny application.</note></link><download><url>https://zenodo.org/records/18217210</url><type>Downloads page</type><note>Archived release files and permanent software record.</note><version>2.1.1</version></download><download><url>https://bioszen.r-universe.dev/BIOSZEN</url><type>Software package</type><note>Installable R package for BIOSZEN 2.1.1, including access to the Shiny application.</note><version>2.1.1</version></download><documentation><url>https://github.com/bioszen/BIOSZEN#readme</url><type>General</type><type>User manual</type><type>Quick start guide</type></documentation><documentation><url>https://github.com/bioszen/BIOSZEN/blob/main/inst/app/www/MANUAL_EN.md</url><type>User manual</type><note>Complete BIOSZEN user manual in English.</note></documentation><documentation><url>https://github.com/bioszen/BIOSZEN#citation</url><type>Citation instructions</type></documentation><publication><doi>10.5281/zenodo.18217210</doi><type>Primary</type><version>all versions</version></publication><publication><doi>10.5281/zenodo.18217522</doi><type>Primary</type><version>1.0.0</version></publication><credit><name>Benjam&#237;n Szenfeld</name><email>bioszenf@gmail.com</email><orcidid>https://orcid.org/0009-0003-4702-4149</orcidid><typeEntity>Person</typeEntity><typeRole>Developer</typeRole><typeRole>Maintainer</typeRole><typeRole>Primary contact</typeRole></credit></tool><tool><name>RNATracker</name><description>Prediction of mRNA subcellular localization using deep recurrent neural networks | RNATracker is a deep learning approach to learn mRNA subcellular localization patterns and to infer its outcome. It operates on the cDNA of the longest isoformic protein-coding transcript of a gene with or without its corresponding secondary structure annnotations. 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A fast and efficient multi-spectrum anlayzer for 2-D NMR Fragment Screening based on SMOTE-ENN machine-learning discriminator. - rubbs14/CSP-Analyzer.</description><homepage>https://github.com/rubbs14/CSP-Analyzer/releases/tag/v1.0</homepage><biotoolsID>csp-analyzer</biotoolsID><biotoolsCURIE>biotools:csp-analyzer</biotoolsCURIE><toolType>Command-line tool</toolType><topic><uri>http://edamontology.org/topic_0593</uri><term>NMR</term></topic><topic><uri>http://edamontology.org/topic_3474</uri><term>Machine learning</term></topic><topic><uri>http://edamontology.org/topic_3336</uri><term>Drug discovery</term></topic><language>C#</language><language>Python</language><license>GPL-3.0</license><function><operation><uri>http://edamontology.org/operation_3215</uri><term>Peak detection</term></operation><operation><uri>http://edamontology.org/operation_3891</uri><term>Essential dynamics</term></operation><operation><uri>http://edamontology.org/operation_3860</uri><term>Spectrum calculation</term></operation></function><publication><doi>10.1016/J.CSBJ.2020.02.015</doi><pmid>32257044</pmid><pmcid>PMC7096735</pmcid></publication><credit><name>G.M. 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It features advanced matrix matching algorithms implemented in C++ that can be used to scan hundreds of matrices against chromosome-sized sequences in few seconds. MOODS can also process high-order PWMs with dependencies between adjacent positions and sequence variants such as SNPs, insertions and deletions.</description><homepage>https://www.cs.helsinki.fi/group/pssmfind/</homepage><biotoolsID>moods</biotoolsID><biotoolsCURIE>biotools:moods</biotoolsCURIE><toolType>Command-line tool</toolType><toolType>Script</toolType><topic><uri>http://edamontology.org/topic_0102</uri><term>Mapping</term></topic><topic><uri>http://edamontology.org/topic_0157</uri><term>Sequence composition, complexity and repeats</term></topic><operatingSystem>Linux</operatingSystem><language>C++</language><language>Python</language><license>GPL-3.0</license><collectionID>Animal and Crop Genomics</collectionID><function><operation><uri>http://edamontology.org/operation_0239</uri><term>Sequence motif recognition</term></operation></function><link><url>https://github.com/jhkorhonen/MOODS</url><type>Repository</type></link><link><url>https://github.com/jhkorhonen/MOODS/issues</url><type>Issue tracker</type></link><documentation><url>https://github.com/jhkorhonen/MOODS/wiki/Getting-started</url><type>General</type></documentation><publication><doi>10.1109/tcbb.2009.35</doi><pmid>21071798</pmid><type>Primary</type></publication><publication><doi>10.1093/bioinformatics/btw683</doi><pmid>28011774</pmid><type>Primary</type></publication><publication><doi>10.1093/bioinformatics/btp554</doi><pmid>19773334</pmid><pmcid>PMC2778336</pmcid><type>Primary</type></publication><credit><email>janne.h.korhonen@aalto.fi</email><typeEntity>Person</typeEntity><typeRole>Primary contact</typeRole></credit></tool><tool><name>Pangolin</name><description>Pangolin is a deep-learning based method for predicting splice site strengths (for details, see Zeng and Li, Genome Biology 2022). 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Shotgun Metagenomics allow to quickly obtain a representation of microorganisms genomes characterizing a particular environment. 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Network centrality analysis
Feature prioritization and ranking
Network reconstruction
Biomarker candidate discovery
Topological network analysis
Integrative ranking</note><cmd>ivi()
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(As I have type 2 Diabetes so I could test the results).</description><homepage>https://britrobin.github.io/ParseSNP/</homepage><biotoolsID>parsesnp21-26</biotoolsID><biotoolsCURIE>biotools:parsesnp21-26</biotoolsCURIE><version>1.1.1</version><toolType>Desktop application</toolType><topic><uri>http://edamontology.org/topic_3577</uri><term>Personalised medicine</term></topic><operatingSystem>Windows</operatingSystem><language>C++</language><license>GPL-3.0</license><maturity>Emerging</maturity><cost>Free of charge</cost><accessibility>Open access</accessibility><link><url>https://britrobin.github.io/ParseSNP/</url><type>Other</type><note>Git page for easy installer and pdf manual  download</note></link><link><url>https://github.com/BritRobin/ParseSNP</url><type>Repository</type><note>GitHub repository</note></link><download><url>https://britrobin.github.io/ParseSNP/</url><type>Software package</type><note>Windows x64 or x86 installer</note><version>1.1.1</version></download><documentation><url>https://raw.githubusercontent.com/BritRobin/ParseSNP/master/ParseSNP_Manual.pdf</url><type>User manual</type><note>pdf user manual</note></documentation></tool><tool><name>CompuCell3D</name><description>CompuCell3D is a multiscale multicellular virtual tissue modeling and simulation environment. 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It takes as input a plain DNA sequence and a pangenome which may either be a set of (multiple) FASTA or FASTQ files or a sequence graph constructed by the tool Bifrost. It then outputs statistically meaningful (gapped) alignments in the style of the NCBI BLAST standard output format. Alignments are calculated based on a "seed-and-extend approach" while traversing the sequence graph. 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A pangenome graph used to search for alignments consists of (1) a file in GFA format containing all sequences of the graph, (2) a binary file produced by the tool itself or the software "Bifrost" and (3) a program-specific index data structure in binary format.</note><cmd>PLAST Search -i pangenomeGraphCommonFilePrefix -q fileContainingOneQueryPerLine</cmd></function><function><operation><uri>http://edamontology.org/operation_0227</uri><term>Indexing</term></operation><input><data><uri>http://edamontology.org/data_0850</uri><term>Sequence set</term></data><format><uri>http://edamontology.org/format_1929</uri><term>FASTA</term></format><format><uri>http://edamontology.org/format_1930</uri><term>FASTQ</term></format></input><output><data><uri>http://edamontology.org/data_0850</uri><term>Sequence set</term></data><format><uri>http://edamontology.org/format_3975</uri><term>GFA 1</term></format><format><uri>http://edamontology.org/format_2333</uri><term>Binary format</term></format></output><note>If a pangenome graph already exists and only an index has to be built, FASTA/FASTQ files are not needed.</note><cmd>PLAST Build -i pangenomeGraphCommonFilePrefix -R *.fasta</cmd></function><link><url>https://gitlab.ub.uni-bielefeld.de/gi/plast</url><type>Repository</type></link><link><url>https://github.com/tischulz1/plast</url><type>Mirror</type></link><documentation><url>https://gitlab.ub.uni-bielefeld.de/gi/plast/-/blob/master/README.md</url><type>General</type></documentation><publication><doi>10.1093/bioinformatics/btab077</doi><pmid>33532821</pmid><pmcid>PMC8388040</pmcid><type>Primary</type><type>Method</type><type>Benchmarking study</type></publication><credit><name>Bielefeld University</name><url>https://www.uni-bielefeld.de/</url><typeEntity>Institute</typeEntity><typeRole>Provider</typeRole></credit><credit><name>Genome Informatics</name><url>https://gi.cebitec.uni-bielefeld.de/</url><typeEntity>Institute</typeEntity><typeRole>Provider</typeRole></credit><credit><name>Tizian Schulz</name><email>plast-service@cebitec.uni-bielefeld.de</email><orcidid>https://orcid.org/0000-0003-0744-7078</orcidid><typeEntity>Person</typeEntity><typeRole>Developer</typeRole></credit></tool><tool><name>ESIprot</name><description>Charge state determination and molecular weight calculation for low resolution electrospray ionization data.</description><homepage>https://nube-gran.de/esiprot</homepage><biotoolsID>esiprot</biotoolsID><biotoolsCURIE>biotools:esiprot</biotoolsCURIE><toolType>Web application</toolType><toolType>Desktop application</toolType><topic><uri>http://edamontology.org/topic_0121</uri><term>Proteomics</term></topic><topic><uri>http://edamontology.org/topic_3520</uri><term>Proteomics experiment</term></topic><operatingSystem>Linux</operatingSystem><operatingSystem>Windows</operatingSystem><operatingSystem>Mac</operatingSystem><language>Python</language><license>GPL-3.0</license><collectionID>ms-utils</collectionID><collectionID>Proteomics</collectionID><function><operation><uri>http://edamontology.org/operation_0398</uri><term>Protein molecular weight calculation</term></operation><operation><uri>http://edamontology.org/operation_2929</uri><term>Protein fragment weight comparison</term></operation><operation><uri>http://edamontology.org/operation_3629</uri><term>Deisotoping</term></operation><input><data><uri>http://edamontology.org/data_0944</uri><term>Peptide mass fingerprint</term></data><format><uri>http://edamontology.org/format_3245</uri><term>Mass spectrometry data format</term></format></input><output><data><uri>http://edamontology.org/data_0944</uri><term>Peptide mass fingerprint</term></data><format><uri>http://edamontology.org/format_3245</uri><term>Mass spectrometry data format</term></format></output></function><link><url>http://www.bioprocess.org/esiprot/esiprot_form.php</url><type>Mirror</type></link><link><url>http://ms-utils.org</url><type>Software catalogue</type></link><download><url>http://www.bioprocess.org/esiprot/esiprot.zip</url><type>Source code</type></download><download><url>http://www.bioprocess.org/esiprot/esiprot.zip</url><type>Source code</type></download><documentation><url>http://www.lababi.bioprocess.org/index.php/lababi-software/84-esiprot</url><type>General</type></documentation><publication><doi>10.1002/rcm.4384</doi><pmid>20049890</pmid></publication><credit><name>Robert Winkler</name><email>robert.winkler@ira.cinvestav.mx</email><typeEntity>Person</typeEntity><typeRole>Maintainer</typeRole></credit><credit><email>webmaster@ms-utils.org</email><url>http://ms-utils.org</url><typeEntity>Person</typeEntity><typeRole>Documentor</typeRole></credit></tool><tool><name>kollaR</name><description>kollaR is an open-source R library for eye-tracking analysis and visualization, offering functions for event detection, AOI-based analyses, and algorithm comparison.  It provides implementations of several algorithms and includes visualizations for data exploration.</description><homepage>https://CRAN.R-project.org/package=kollaR</homepage><biotoolsID>kollar</biotoolsID><biotoolsCURIE>biotools:kollar</biotoolsCURIE><topic><uri>http://edamontology.org/topic_3382</uri><term>Imaging</term></topic><topic><uri>http://edamontology.org/topic_0203</uri><term>Gene expression</term></topic><topic><uri>http://edamontology.org/topic_2815</uri><term>Human biology</term></topic><language>R</language><license>GPL-3.0</license><function><operation><uri>http://edamontology.org/operation_2428</uri><term>Validation</term></operation><operation><uri>http://edamontology.org/operation_3432</uri><term>Clustering</term></operation><operation><uri>http://edamontology.org/operation_0337</uri><term>Visualisation</term></operation></function><publication><doi>10.3758/S13428-025-02903-Z</doi><pmid>41361102</pmid><pmcid>PMC12685970</pmcid></publication><credit><name>Johan Lundin Kleberg</name><email>johan.lundin.kleberg@su.se</email><typeEntity>Person</typeEntity></credit></tool><tool><name>ProAE</name><description>ProAE is an R package and collection of SAS macros designed for standardized analysis and graphical representation of patient-reported outcomes and adverse events data, specifically focusing on PRO-CTCAE.</description><homepage>https://duecklab.github.io/proae.html</homepage><biotoolsID>proae</biotoolsID><biotoolsCURIE>biotools:proae</biotoolsCURIE><topic><uri>http://edamontology.org/topic_2640</uri><term>Oncology</term></topic><topic><uri>http://edamontology.org/topic_0089</uri><term>Ontology and terminology</term></topic><topic><uri>http://edamontology.org/topic_3379</uri><term>Preclinical and clinical studies</term></topic><topic><uri>http://edamontology.org/topic_2269</uri><term>Statistics and probability</term></topic><topic><uri>http://edamontology.org/topic_3068</uri><term>Literature and language</term></topic><language>R</language><license>GPL-3.0</license><function><operation><uri>http://edamontology.org/operation_3435</uri><term>Standardisation and normalisation</term></operation></function><link><url>https://CRAN.R-project.org/package=ProAE</url><type>Repository</type></link><publication><doi>10.1186/S12911-025-03320-0</doi><pmid>41422214</pmid></publication><credit><name>Amylou C Dueck</name><email>dueck.amylou@mayo.edu</email><typeEntity>Person</typeEntity></credit></tool><tool><name>Pv3Rs</name><description>Pv3Rs is an R package that allows users to infer the cause (recrudescence, relapse, or reinfection) of Plasmodium vivax malaria recurrence using genetic data. It implements a statistical model to compute posterior probabilities of recurrence states and is freely available on CRAN under the GNU license.</description><homepage>https://cran.r-project.org/web/packages/Pv3Rs/index.html</homepage><biotoolsID>pv3rs</biotoolsID><biotoolsCURIE>biotools:pv3rs</biotoolsCURIE><topic><uri>http://edamontology.org/topic_2269</uri><term>Statistics and probability</term></topic><topic><uri>http://edamontology.org/topic_0199</uri><term>Genetic variation</term></topic><topic><uri>http://edamontology.org/topic_3379</uri><term>Preclinical and clinical studies</term></topic><topic><uri>http://edamontology.org/topic_0625</uri><term>Genotype and phenotype</term></topic><topic><uri>http://edamontology.org/topic_3305</uri><term>Public health and epidemiology</term></topic><language>R</language><license>GPL-3.0</license><function><operation><uri>http://edamontology.org/operation_3664</uri><term>Statistical modelling</term></operation><operation><uri>http://edamontology.org/operation_3196</uri><term>Genotyping</term></operation><operation><uri>http://edamontology.org/operation_3658</uri><term>Statistical inference</term></operation><operation><uri>http://edamontology.org/operation_0337</uri><term>Visualisation</term></operation></function><publication><doi>10.1093/BIOINFORMATICS/BTAF643</doi><pmid>41324557</pmid><pmcid>PMC12758599</pmcid></publication><credit><name>Aimee R Taylor</name><email>aimee.taylor@pasteur.fr</email><typeEntity>Person</typeEntity></credit></tool><tool><name>PSQAN</name><description>PSQAN is a Snakemake and R workflow designed to prioritize high-confidence and biologically relevant transcripts from long-read RNA sequencing data, facilitating the interpretation of transcript characterization results.</description><homepage>https://github.com/sid-sethi/PSQAN</homepage><biotoolsID>psqan</biotoolsID><biotoolsCURIE>biotools:psqan</biotoolsCURIE><topic><uri>http://edamontology.org/topic_0203</uri><term>Gene expression</term></topic><topic><uri>http://edamontology.org/topic_4056</uri><term>Long-read sequencing</term></topic><topic><uri>http://edamontology.org/topic_3512</uri><term>Gene transcripts</term></topic><topic><uri>http://edamontology.org/topic_3170</uri><term>RNA-Seq</term></topic><topic><uri>http://edamontology.org/topic_0769</uri><term>Workflows</term></topic><language>R</language><license>GPL-3.0</license><function><operation><uri>http://edamontology.org/operation_0264</uri><term>Alternative splicing prediction</term></operation><operation><uri>http://edamontology.org/operation_0337</uri><term>Visualisation</term></operation></function><publication><doi>10.1093/BIOADV/VBAF293</doi><pmid>41394080</pmid><pmcid>PMC12701792</pmcid></publication><credit><name>Siddharth Sethi</name><email>siddharth.sethi@astx.com</email><orcidid>https://orcid.org/0000-0002-4398-4295</orcidid><typeEntity>Person</typeEntity></credit><credit><name>Mina Ryten</name><email>mr2022@medschl.cam.ac.uk</email><orcidid>https://orcid.org/0000-0001-9520-6957</orcidid><typeEntity>Person</typeEntity></credit></tool><tool><name>RISK</name><description>RISK is a tool for biological network annotation and visualization that integrates community detection algorithms and overrepresentation analysis. 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It enables classification of water network conservation, characterization of water networks, and projection of results for visual interpretation.</description><homepage>https://watcon.readthedocs.io</homepage><biotoolsID>watcon</biotoolsID><biotoolsCURIE>biotools:watcon</biotoolsCURIE><topic><uri>http://edamontology.org/topic_0623</uri><term>Gene and protein families</term></topic><topic><uri>http://edamontology.org/topic_2814</uri><term>Protein structure analysis</term></topic><topic><uri>http://edamontology.org/topic_0593</uri><term>NMR</term></topic><topic><uri>http://edamontology.org/topic_3534</uri><term>Protein binding sites</term></topic><topic><uri>http://edamontology.org/topic_0154</uri><term>Small molecules</term></topic><language>Python</language><license>GPL-3.0</license><function><operation><uri>http://edamontology.org/operation_0387</uri><term>Molecular surface calculation</term></operation><operation><uri>http://edamontology.org/operation_3925</uri><term>Network visualisation</term></operation><operation><uri>http://edamontology.org/operation_2422</uri><term>Data retrieval</term></operation><operation><uri>http://edamontology.org/operation_0244</uri><term>Simulation analysis</term></operation><operation><uri>http://edamontology.org/operation_0321</uri><term>Protein structure validation</term></operation></function><publication><doi>10.1021/JACSAU.5C00447</doi><pmid>41450622</pmid><pmcid>PMC12728608</pmcid></publication><credit><name>Shina C. 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