πΈThe benefits and threats of blockchain technology in healthcare: A scoping review
πJournal: International Journal of Medical Informatics (I.F.=4.046)
πPublish year: 2020
π Study the paper
π²Channel: @Bioinformatics
πJournal: International Journal of Medical Informatics (I.F.=4.046)
πPublish year: 2020
π Study the paper
π²Channel: @Bioinformatics
π4
πArtificial intelligence in cancer research: learning at different levels of data granularity
πJournal: Molecular Oncology Journal (I.F.=6.603)
πPublish year: 2021
π Study the paper
π²Channel: @Bioinformatics
πJournal: Molecular Oncology Journal (I.F.=6.603)
πPublish year: 2021
π Study the paper
π²Channel: @Bioinformatics
π2
πAdvances in clinical genetics and genomics
π₯Review paper
πJournal: Intelligent Medicine
πPublish year: September 2021
π Study the paper
π²Channel: @Bioinformatics
π₯Review paper
πJournal: Intelligent Medicine
πPublish year: September 2021
π Study the paper
π²Channel: @Bioinformatics
π1
πProtein domain identification methods and online resources
πJournal: Computational and Structural Biotechnology (I.F.=7.271)
πPublish year: 2021
π₯Abstract: Protein domains are the basic units of proteins that can fold, function, and evolve independently. Knowledge of protein domains is critical for protein classification, understanding their biological functions, annotating their evolutionary mechanisms and protein design. Thus, many protein domain identification approaches have been developed, and a variety of protein domain databases have also been constructed. This review divides protein domain prediction methods into two categories, sequence-based and structure-based. These methods are introduced in detail, and their advantages and limitations are compared. Furthermore, this review also provides a comprehensive overview of popular online protein domain sequence and structure databases. Finally, we discuss potential improvements of these prediction methods.
π Study the paper
π²Channel: @Bioinformatics
πJournal: Computational and Structural Biotechnology (I.F.=7.271)
πPublish year: 2021
π₯Abstract: Protein domains are the basic units of proteins that can fold, function, and evolve independently. Knowledge of protein domains is critical for protein classification, understanding their biological functions, annotating their evolutionary mechanisms and protein design. Thus, many protein domain identification approaches have been developed, and a variety of protein domain databases have also been constructed. This review divides protein domain prediction methods into two categories, sequence-based and structure-based. These methods are introduced in detail, and their advantages and limitations are compared. Furthermore, this review also provides a comprehensive overview of popular online protein domain sequence and structure databases. Finally, we discuss potential improvements of these prediction methods.
π Study the paper
π²Channel: @Bioinformatics
π5π₯1
π Biology meets programming: Bioinformatics 101 for NGS researchers
π₯Free recorded webinar from Science
π Watch
π²Channel: @Bioinformatics
π₯Free recorded webinar from Science
π Watch
π²Channel: @Bioinformatics
www.science.org
Biology meets programming: Bioinformatics 101 for NGS researchers
π7β€5π₯4
πA review of proteinβprotein interaction network alignment: From pathway comparison to global alignment
πJournal: Computational and Structural Biotechnology (I.F.=7.271)
πPublish year: 202o
π Study the paper
π²Channel: @Bioinformatics
πJournal: Computational and Structural Biotechnology (I.F.=7.271)
πPublish year: 202o
π Study the paper
π²Channel: @Bioinformatics
β€4π₯2π1
π½Life After Graduation: Bioinformatics edition
π₯Free webinar
π« Free E-Certificate
π Date: Saturday, 22 Jan 2022
π Time: 14:00 β 16:00 PM WIB
πLocation: ZOOM
βοΈ Registration
βΉοΈ More information
π²Channel: @Bioinformatics
π₯Free webinar
π« Free E-Certificate
π Date: Saturday, 22 Jan 2022
π Time: 14:00 β 16:00 PM WIB
πLocation: ZOOM
βοΈ Registration
βΉοΈ More information
π²Channel: @Bioinformatics
π10
π¨π»βπ»Free Online hands-on Workshop
π₯Best Practices for Scientific Computing
π Date: Jan 24 - 27, 2022
βοΈ Time: 12:00 pm - 4:00 pm EST
β«οΈYou don't need to have any previous knowledge of the tools that will be presented at the workshop
βΉοΈ More information
π²Channel: @Bioinformatics
π₯Best Practices for Scientific Computing
π Date: Jan 24 - 27, 2022
βοΈ Time: 12:00 pm - 4:00 pm EST
β«οΈYou don't need to have any previous knowledge of the tools that will be presented at the workshop
βΉοΈ More information
π²Channel: @Bioinformatics
π8β€3
π·Remote Job: Bioinformatics Analyst
π₯Job summery: Primary accountability is to leverage the organizationβs data assets exome sequencing data (>180,000 individuals) from MyCode Community Health Initiative to improve quality, efficiency and generate knowledge specifically in the field of bioinformatics within health research. Performs and supervises complex data extraction, transformation, visualization, and summarization to support Research and operations activities.. Uses data reporting/management tools such as SQL, python, NGS tools (GATK, BWA, VEP, etc.), genomic databases (ClinVar, NCBI, gnomAD, etc.) and contributes to national publications. Uses multiple operating systems (Windows, Linux) and compute environments (local, cloud) and is responsible for assisting in development and maintenance of bioinformatics capabilities.
βΉοΈ More information and apply
π²Channel: @Bioinformatics
π₯Job summery: Primary accountability is to leverage the organizationβs data assets exome sequencing data (>180,000 individuals) from MyCode Community Health Initiative to improve quality, efficiency and generate knowledge specifically in the field of bioinformatics within health research. Performs and supervises complex data extraction, transformation, visualization, and summarization to support Research and operations activities.. Uses data reporting/management tools such as SQL, python, NGS tools (GATK, BWA, VEP, etc.), genomic databases (ClinVar, NCBI, gnomAD, etc.) and contributes to national publications. Uses multiple operating systems (Windows, Linux) and compute environments (local, cloud) and is responsible for assisting in development and maintenance of bioinformatics capabilities.
βΉοΈ More information and apply
π²Channel: @Bioinformatics
π₯1
πChallenges in Bioinformatics Workflows for Processing Microbiome Omics Data at Scale
πJournal: Frontiers in Bioinformatics
πPublish year: 2022
π Study the paper
π²Channel: @Bioinformatics
π3
π Artificial Intelligence and Machine Learning in Precision and Genomic Medicine
π Preprint paper
π Study the article
π²Channel: @Bioinformatics
π Preprint paper
π Study the article
π²Channel: @Bioinformatics
β€4π2
πStatistics or biology: the zero-inflation controversy about scRNA-seq data
πJournal: Genome Biology (I.F.=13.583)
πPublish year: 2022
π₯Abstract: Researchers view vast zeros in single-cell RNA-seq data differently: some regard zeros as biological signals representing no or low gene expression, while others regard zeros as missing data to be corrected. To help address the controversy, here we discuss the sources of biological and non-biological zeros; introduce five mechanisms of adding non-biological zeros in computational benchmarking; evaluate the impacts of non-biological zeros on data analysis; benchmark three input data types: observed counts, imputed counts, and binarized counts; discuss the open questions regarding non-biological zeros; and advocate the importance of transparent analysis.
π Study the paper
π²Channel: @Bioinformatics
πJournal: Genome Biology (I.F.=13.583)
πPublish year: 2022
π₯Abstract: Researchers view vast zeros in single-cell RNA-seq data differently: some regard zeros as biological signals representing no or low gene expression, while others regard zeros as missing data to be corrected. To help address the controversy, here we discuss the sources of biological and non-biological zeros; introduce five mechanisms of adding non-biological zeros in computational benchmarking; evaluate the impacts of non-biological zeros on data analysis; benchmark three input data types: observed counts, imputed counts, and binarized counts; discuss the open questions regarding non-biological zeros; and advocate the importance of transparent analysis.
π Study the paper
π²Channel: @Bioinformatics
π4β€1
πDesign, delivery and evaluation of a bioinformatics education workshop for 13-16-year-olds
πJournal: Genome Biology (I.F.=1.262)
πPublish year: 2021
π Study the paper
π²Channel: @Bioinformatics
πJournal: Genome Biology (I.F.=1.262)
πPublish year: 2021
π Study the paper
π²Channel: @Bioinformatics
Taylor & Francis
Design, delivery and evaluation of a bioinformatics education workshop for 13-16-year-olds
Bioinformatics is the use of computers in biology, particularly to analyse DNA and protein sequences and associated data. Bioinformatics has become crucial to most areas of life sciences research. ...
π1
πMachine learning for multi-omics data integration in cancer
πJournal: IScience (I.F.=5.458)
πPublish year: 2022
π Study the paper
π²Channel: @Bioinformatics
πJournal: IScience (I.F.=5.458)
πPublish year: 2022
π Study the paper
π²Channel: @Bioinformatics
π12π1
πΊ BioInformatics: Algorithms and Applications
π₯YouTube playlists curated by Class Central (69 sessions)
π Watch
π²Channel: @Bioinformatics
π₯YouTube playlists curated by Class Central (69 sessions)
π Watch
π²Channel: @Bioinformatics
πA Bibliometric Analysis of Mexican Bioinformatics: A Portrait of Actors, Structure, and Dynamics
πJournal: Biology (I.F.=5.079)
πPublish year: 2022
π Study the paper
π²Channel: @Bioinformatics
πJournal: Biology (I.F.=5.079)
πPublish year: 2022
π Study the paper
π²Channel: @Bioinformatics
π3β€1
πRecent Advances of Deep Learning in Bioinformatics and Computational Biology
πJournal: Frontiers in Genetics (I.F.=5.599)
πPublish year: 2019
π₯Abstract: Extracting inherent valuable knowledge from omics big data remains as a daunting problem in bioinformatics and computational biology. Deep learning, as an emerging branch from machine learning, has exhibited unprecedented performance in quite a few applications from academia and industry. We highlight the difference and similarity in widely utilized models in deep learning studies, through discussing their basic structures, and reviewing diverse applications and disadvantages. We anticipate the work can serve as a meaningful perspective for further development of its theory, algorithm and application in bioinformatic and computational biology.
π Study the paper
π²Channel: @Bioinformatics
πJournal: Frontiers in Genetics (I.F.=5.599)
πPublish year: 2019
π₯Abstract: Extracting inherent valuable knowledge from omics big data remains as a daunting problem in bioinformatics and computational biology. Deep learning, as an emerging branch from machine learning, has exhibited unprecedented performance in quite a few applications from academia and industry. We highlight the difference and similarity in widely utilized models in deep learning studies, through discussing their basic structures, and reviewing diverse applications and disadvantages. We anticipate the work can serve as a meaningful perspective for further development of its theory, algorithm and application in bioinformatic and computational biology.
π Study the paper
π²Channel: @Bioinformatics
π6β€1
π¬ Free webinar
π₯Deciphering the cellular, molecular, clinical and therapeutic implications of lung cancers lacking targeted therapies
π Date: 15th February
π Time: From 19 to 20 p.m, CET
π¬π§Language: English
βΉοΈ Registration and more information
π²Channel: @Bioinformatics
π₯Deciphering the cellular, molecular, clinical and therapeutic implications of lung cancers lacking targeted therapies
π Date: 15th February
π Time: From 19 to 20 p.m, CET
π¬π§Language: English
βΉοΈ Registration and more information
π²Channel: @Bioinformatics
Eventbrite
BioInfoClub | Bioinformatic study of lung cancers without therapies
Deciphering the cellular, molecular, clinical and therapeutic implications of lung cancers lacking targeted therapies
π¨βπ« Free Online Course:
Artificial Intelligence in Bioinformatics
π Duration: 3 weeks (Self paced)
π₯What you'll learn:
β«οΈOverview on bioinformatics
β«οΈArtificial Intelligence and how to apply it to bioinformatics
β«οΈFeature engineering
β«οΈFeature learning
β«οΈDeep learning in bioinformatics
β«οΈAnalyzing and visualizing data
βΉοΈ More information and Participation
π²Channel: @Bioinformatics
Artificial Intelligence in Bioinformatics
π Duration: 3 weeks (Self paced)
π₯What you'll learn:
β«οΈOverview on bioinformatics
β«οΈArtificial Intelligence and how to apply it to bioinformatics
β«οΈFeature engineering
β«οΈFeature learning
β«οΈDeep learning in bioinformatics
β«οΈAnalyzing and visualizing data
βΉοΈ More information and Participation
π²Channel: @Bioinformatics
FutureLearn
Artificial Intelligence in Bioinformatics - Online AI Course - FutureLearn
Join Taipei Universityβs online course to explore how AI is transforming the field of bioinformatics, and build your working knowledge of AI-based bioinformatics.
β€6π6π₯1
πTen Simple Rules for writing algorithmic bioinformatics conference papers
πJournal: PLOS Computational Biology (I.F.=4.475)
πPublish year: 2020
π Study the paper
π²Channel: @Bioinformatics
πJournal: PLOS Computational Biology (I.F.=4.475)
πPublish year: 2020
π Study the paper
π²Channel: @Bioinformatics
π1