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Interview with Ed Boyden discussing his newest optogenetics tools and the questions that motivate neuroengineering.

In this episode of the Addgene Podcast, learn all about research in Singapore and the genome engineering tools being developed in Wei Leong Chew's Lab.

Addgene supports rare disease research with the 2020 BeHEARD Awards. Read about the winners and their research in this blog post.

Learn some of the tools Addgene uses to achieve useful and affordable levels of lab automation.

Find out more about the different homology directed repair pathways and how to design HDR templates for CRISPR editing.

Scientists from UCSF identify 332 human proteins that the SARS-CoV-2 virus interacts with in cells in attempts to find druggable targets.

Learn how you can use the Biobits plasmids and freeze-dried cell extracts to teach students about molecular biology.

We recently attended the Society for Neuroscience conference in Washington DC. Check out some of what we learned about this exciting field.

An overview of split fluorescent proteins and a highlight of some of the most popular and newest ones available on Addgene.

Guest blogger Pooran Dewari presents results of an NgAgo survey he gave to some of the first NgAgo users. Find out how NgAgo compares to Cas9 so far.

Are you looking to make your office more eco-friendly? Read this blog post to learn what we've been doing to make our office more sustainable!

This blog post explores how commonly used GFP variants can undergo Green-Red photoconversion.

Learn about some of the latest developments in cancer and immunology research and find resources you can use to accelerate your immuno-oncology experiments.

Transient plant leaf transformation can save you time... months in fact. Learn more about this method and get some tips and tricks for designing your transient plant leaf transformation experiment.

Learn about CRISPR activation tools for neuroscience including a SPH transgenic mice, neuron-optimized viral vectors, and high-throughput screening.

Read on to learn more about this technique to isolate specific genomic regions using CRISPR.

Learn how the Gradinaru Lab at Caltech developed AAV vectors to target the peripheral and central nervous systems.

Cpf1, a newly discovered Cas9 homolog, is smaller than Cas9, can target different sequences, and may more efficiently generate targeted mutations.

Learn about the best-in-class collection of AAV enhancers developed by the Allen Institute for Brain Science!

Learn about the sources of spontaneous recombination and optimizing Cre-recombinase dependent AAV vector expression in vivo.