BioTech Bench
HomeLearning PathsCategoriesResourcesShopAbout

All Posts

Browse by topic
  • bioinformatics (33)
  • how-to (27)
  • r (20)
  • crispr (19)
  • r-series (18)
  • gene-editing (16)
  • beginner (15)
  • crispr-series (14)
  • tool-review (12)
  • intermediate (10)
  • rna-seq (10)
  • molecular-biology (7)
  • ai (4)
  • explainer (4)
  • free-tools (4)
  • learning (4)
  • sequencing (3)
  • protein-design (2)
  • trends (2)
  • ngs (2)
  • open-source (2)
  • python (2)
  • statistics (2)
  • pcr (2)
  • esm3 (1)
  • alphafold3 (1)
  • protein-structure (1)
  • bash (1)
  • command-line (1)
  • lab-software (1)
  • scientific-illustration (1)
  • conda (1)
  • synthetic-biology (1)
  • bioelectronics (1)
  • nanotechnology (1)
  • off-target (1)
  • reviewing (1)
  • bench-biologist (1)
  • nanopore (1)
  • pacbio (1)
  • cloning (1)
  • drug-discovery (1)
  • career (1)
  • biology (1)

All Posts

  • bioinformatics (33)
  • how-to (27)
  • r (20)
  • crispr (19)
  • r-series (18)
  • gene-editing (16)
  • beginner (15)
  • crispr-series (14)
  • tool-review (12)
  • intermediate (10)
  • rna-seq (10)
  • molecular-biology (7)
  • ai (4)
  • explainer (4)
  • free-tools (4)
  • learning (4)
  • sequencing (3)
  • protein-design (2)
  • trends (2)
  • ngs (2)
  • open-source (2)
  • python (2)
  • statistics (2)
  • pcr (2)
  • esm3 (1)
  • alphafold3 (1)
  • protein-structure (1)
  • bash (1)
  • command-line (1)
  • lab-software (1)
  • scientific-illustration (1)
  • conda (1)
  • synthetic-biology (1)
  • bioelectronics (1)
  • nanotechnology (1)
  • off-target (1)
  • reviewing (1)
  • bench-biologist (1)
  • nanopore (1)
  • pacbio (1)
  • cloning (1)
  • drug-discovery (1)
  • career (1)
  • biology (1)
  • T7E1 and Surveyor assays: how they work, their limits, and how to interpret results
    Published on
    April 30, 2026

    T7E1 and Surveyor assays: how they work, their limits, and how to interpret results

    crispr-seriescrisprgene-editingbeginnerhow-to
    Mismatch-cleavage assays are the quickest and cheapest way to see if your CRISPR edit actually worked. This guide breaks down the mechanism of T7E1 and Surveyor nucleases, why the "denature and re-anneal" step is critical, and how to turn gel bands into an editing percentage.
  • A complete statistical analysis of a public dataset in R: GEO walkthrough
    Published on
    April 28, 2026

    A complete statistical analysis of a public dataset in R: GEO walkthrough

    how-toRbioinformaticsr-seriesrna-seqintermediate
    We’ve covered downloading data, normalization, and visualization. Now, we put it all together. This capstone post walks through a complete end-to-end analysis of a public breast cancer dataset (GSE183947) — from raw GEO download to identifying differentially expressed genes and creating a publication-ready volcano plot.
  • What is single-cell RNA sequencing? A guide for bench biologists
    Published on
    April 26, 2026

    What is single-cell RNA sequencing? A guide for bench biologists

    biologyrna-seqbioinformaticsexplainer
    Bulk RNA-seq tells you the average gene expression of millions of cells at once. Single-cell RNA-seq tells you what every individual cell is doing. Here is how the technology works, how the data is analyzed, and how to know if you need it.
  • On-target assessment methods compared: T7E1, TIDE, and amplicon NGS
    Published on
    April 23, 2026

    On-target assessment methods compared: T7E1, TIDE, and amplicon NGS

    crispr-seriescrisprgene-editingintermediate
    You’ve made your edit, but how much of it is actually there? This post compares the three most common ways to measure CRISPR on-target efficiency—from the "quick and dirty" T7E1 gel assay to the high-resolution precision of Amplicon NGS.
  • What is Bioconductor, and why does everyone in bioinformatics use it?
    Published on
    April 21, 2026

    What is Bioconductor, and why does everyone in bioinformatics use it?

    explainerRbioinformaticsr-seriesbeginner
    If R is a smart phone, Bioconductor is the App Store for biology. This post explains why bioinformatics has its own package repository, why it’s better than CRAN for scientists, and how to keep your biological analysis reproducible.
Previous5 of 11Next
mailMail
Support us on Ko-fi
BioTech Bench
•
© 2026
About & Editorial Standards·Resources·Sponsor·Privacy Policy
Made with ❤️love and ☕