Statistical Analysis of Laboratory Data

Statistical Analysis of Laboratory Data
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Given the discovery of differentially expressed genes, it is essential to understand the putative function, pathways associated with the gene, and interacting proteins. Explore a case study on the discoidin domain receptor tyrosine kinase 2 (DDR2) gene and its role in cell communication, growth, and metabolism. Discover how receptor tyrosine kinases (RTKs) play a crucial role in signal transduction and the molecular mechanisms involved. Gain insights into alternative splicing variants and the regulatory functions of RTKs.

  • Statistical Analysis
  • Laboratory Data
  • Gene Expression
  • Pathways
  • Protein Interaction

Uploaded on Feb 28, 2025 | 0 Views


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  1. Our cloud usage - and not Lars Ailo Bongo (larsab@cs.uit.no) Photo: Jo Jorem Aarseth

  2. Center for Bioinformatics (SfB) Interdisciplinary research and services Computer science Biotechnology Bioinformatics Special focus on marine metagenomics ~15 people 6 from computer science http://sfb.cs.uit.no

  3. Bioinformatics services for Norwegian users Tools Pipelines Compute resources Storage resources (project & archive) UiT, UiB, UiO, NTNU, NMBU UiT participating in all work packages Financed by NFR Infrastruktur grant New grant submitted https://nels.bioinfo.no/

  4. NeLS architecture

  5. ELIXIR: An international distributed infrastructure for biological data Technical platforms Data Standards Tools Compute Training User communities Marine metagenomics Crop and forest plants Human data Rare diseases

  6. Technical Architecture

  7. Backend Architecture

  8. Cloud Deployment Execution environments Execution Manager (Stallo) Execution Manager (CSC) Web front-end CLI Tool Execution Manager (ICE-2) Execution Manager (anywhere else?) Public API Elixir AAI Auth Storage Job Service - - Tokens Authentication events - - Inputs / uploads Outputs / downloads - - Job queue Execution status

  9. Norwegian Woman and Cancer (NOWAC) Large and unique biobank of blood samples Understand development of cancer (and how to avoid it) Develop diagnosis approaches Develop or improve treatment http://site.uit.no/nowac/

  10. Lung sounds 1000s of recordings (Troms unders kelsen) Machine learning based classification Air pollution Mobile air pollution measurements Orchestrate crowd sourcing

  11. inf-2202

  12. Outreach

  13. Cloud use in our research Focus: build cloud technologies Technologies: Hadoop, HBase, Spark, Pachyderm, AWS: Scalability evaluation (Uninett) Kubernetes (or Azure, GCP): Scalable pipelines with built-in data versioning AWS (or Azure, Tensorflow): Deep learning Heroku: Data management for air pollution Github: open source repositories Google docs: paper writing Slack: chat

  14. Cloud NOT used in our research Data analyses on data we cannot move out of Stallo Gitlab for not (yet) open sourced software SharePoint for paper writing Developer cluster But testing a virtual machine based cluster Virtual reality

  15. Cloud use in infrastructure development Focus: deliver data analysis services Technologies: Spark, OpenStack, AppImage, Jenkins OpenStack: portable Spark based backend for research clouds ELIXIR cloud platform: run anlyses AWS (or Azure, GCP): scalability evaluation Jenkins: application deployment Jira: project coordination Bitbucket: private repositories Github, slack, Google docs, .

  16. Cloud NOT used in infrastructure development Stallo backend Servers Data storage De-novo assembly

  17. Cloud use in teaching Focus: computer science education Technologies: Spark, Docker, Tensorflow, GitHub and GitHub Classroom: course materials AWS Education: big data analysis in an undergraduate course

  18. Cloud NOT used in teaching In person activities Developer machines All but one course Digital exam? Mailing lists

  19. Cloud use in outreach We just created a Twitter account Webinars in youtube L r kidsa kode activities

  20. Cloud NOT used in outreach In person activities Webpage hosted locally

  21. Summary Cloud in research: Must in computer science Need in life science Cloud in life science analysis services: Must to provide a good service Easier to develop and maintain services Cloud in teaching: Should for computer science Should for other courses Cloud in outreach Must and should

  22. Summary - Issues Who can develop the services? Who pays for the use of services? How to overcome cloud skepticism? Research vs. other usage? Ethical, legal, and political problems

  23. The Team Center for Bioinformatics (SfB) Edvard Pedersen (PhD student) Espen Robertsen (PhD student) Inge Alexander Raknes (engineer) Giacomo Tartari (engineer) Aleksandr Agafonov (engineer) Jon Ivar Kristiansen (system administrator) NOWAC Einar Holsb (PhD student) Bj rn Fjukstad (PhD student) Morten Gr nnesby, (PhD student) Lung sounds, and others Johan Ravn (master student) Frode Opdahl (master student) Nina Angelvik (master student)

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