| FazBrowse GitHub Viewer | Trending | | Home |
| Tools: [Download Repo ZIP] [Original HTTPS Page] |
| Name | Name | Last commit date | ||
|---|---|---|---|---|
Releases are available in the Release section of this repository.
After downloading the release from above, follow the installation instruction for your operating system.
You can find step-by-step installation instructions in our documentation. There we also provide instructions on how to use sequ-into.
We provide a video explaining how to use sequ-into with different input, particularly multi-FAST5, single-FAST5 and basecalled tmp-files:
This use-case demonstrates how to setup sequ-into for analysing basecalled reads during sequencing:
And we also have a video demonstrating how to use sequ-into to detect ribosomal RNA from single-FAST5 files:
We demonstrate that sequ-into can be run while sequencing in the following video:
Third generation sequencing techniques rapidly evolved as a common practice in molecular biology. Great advances have been made in terms of feasibility, cost, throughput, and read-length. However, sample contamination still poses a big issue: it complicates correct, high-quality downstream analysis of sequencing data and usage in medical applications. Furthermore, it might be unclear weather the sequenced reads represent the intended target. To address these issues we developed a cross-platform desktop application: Sequ-Into. Reads originating from unwanted sources are detected and summarized by a comprehensive statistical overview, but can also be filtered and exported in standardized FASTQ-format to facilitate custom evaluation of experimental findings. This holds also true for an evaluation weather the reads consist of the intended source, and allows for a positive selection of those reads who do. Sequ-Into creates a straightforward user experience by fusing an intuitive graphical-user-interface with state-of-the-art long-read alignment software.
The app was implemented in the context of our iGEM project, where several DNA purification protocols were evaluated with Sequ-Into and thus allowed iterative engineering cycles leading to a so far unreached purification of up to 96% (bases sequenced) in our probes. To read more about Phactory, please follow this link: http://2018.igem.org/Team:Munich
The app framework is based on: irath96: Electron Biolerplate https://github.com/irath96/electron-react-typescript-boilerplate
We would like to thank the iGEM Munich 2018 team and especially our supervisors for the hard work, support and the possibility to work with novel sequencing data.
MIT © Rita, Julia, Markus
| Back | FazBrowse Home | New Git URL |