We narrowed to 140 results for: yeast

Find unique recombinant antibodies targeting families of cell surface and secreted proteins from a collaboration between Addgene and IPI.

CRISPR plasmids for activating or upregulating gene expression in various model organisms.

CRISPR nickase plasmids for the generation of single-strand breaks.

Catalytically inactive CRISPR plasmids for purification of target loci.

Review of the most common types of affinity tags and there optimal usages.

An introduction to gene, enhancer, and promoter trapping. Relevant examples of each along with pros and cons of each system.

A brief history of HEK cells and their unique applications and uses.

Addgene welcomes three new members to the Board of DIrectors: Khandan Baradaran, Frank Stegmeier, and Luk Vandenberghe.

New to plasmids? Learn the basics of plasmids in this blog post and find out about the parts of a plasmid, how they are made, and how scientists can use them in the lab.

Learn about the importance of antibiotic resistance genes in plasmids. How they work, how to use them, and some great tips.

CRISPR plasmids that create double strand breaks in DNA.

CRISPR plasmids for precisely editing DNA bases without inducing a DNA break.

Learn about new plasmids at Addgene including plasmids for CRISPR, sparse cell labeling, reporting calcineurin activity, and an alternative to DNA staining dyes.

The Doudna lab recently described a new, thermostable Cas9 variant, GeoCas9. Learn how you can use GeoCas9 in your next genome engineering experimetn.

Read advice for grad students and postdocs applying for science careers in sales and marketing, including tailoring your CV.

Learn more about synthetic biology resources available at Addgene. Browse featured collections or depositing labs.

Learn about new plasmids at Addgene including CRISPR, auxin inducible degradation, MerMAID channelrhodopsins, and genome looping.

Some promoters are only active under specific circumstances. Here's a guide to inducible promoters, which are regulated by chemicals, light, and/or temperature.

Learn what the Gal4/UAS system is and how it can enable powerful experiments in Drosophila.

Read about how mammalian plasmids differ from their bacterial counterparts, including how replication occurs and whether selection is necessary for transfected cells.