Manuel Lera-Ramirez

@manu-lera.bsky.social

Working on OpenCloning, an Open Source web application to plan and document cloning. https://opencloning.org/ Open Source in science enthusiast. Previously PomBase, yeast genetics, image analysis and cytoskeleton.

#OpenCloning is shaping up to be a really useful tool, and the new Assembler is powerful for defining and using Golden Gate syntaxes. Give it a try!

Manuel Lera-Ramirez@manu-lera.bsky.social · 6mo ago

🚀 Excited to launch the #OpenCloning Assembler! 🧬 Built to demystify Golden Gate for beginners and save time for experts -> MoClo assembly blazing fast ⚡ ✍️ Use existing syntaxes or design your own! #SynBio #GoldenGate #MoClo #OpenSource #Biotech 👉 Try it: app.opencloning.org Feedback welcome!

I've been working with the OpenCloning Assembler with the syntax of my Open Yeast System - both the Open Yeast Collection and Yeast Protein Expression Toolkit. It is a very powerful open approach for rapidly assembling constructs when you have a library of parts. Try it with your Golden Gate system.

OpenCloning is legit Another example of a wizard making great free tools for everyone 👏

Manuel Lera-Ramirez@manu-lera.bsky.social · 6mo ago

🚀 Excited to launch the #OpenCloning Assembler! 🧬 Built to demystify Golden Gate for beginners and save time for experts -> MoClo assembly blazing fast ⚡ ✍️ Use existing syntaxes or design your own! #SynBio #GoldenGate #MoClo #OpenSource #Biotech 👉 Try it: app.opencloning.org Feedback welcome!

New feature to help plan Modular Cloning (Golden Gate) experiments and streamline the otherwise confusing dance of overhang compatibility and vector hopping. Gonna find some time to try this out and compare to my current SnapGene workflow. Tools all day!

Manuel Lera-Ramirez@manu-lera.bsky.social · 6mo ago

🚀 Excited to launch the #OpenCloning Assembler! 🧬 Built to demystify Golden Gate for beginners and save time for experts -> MoClo assembly blazing fast ⚡ ✍️ Use existing syntaxes or design your own! #SynBio #GoldenGate #MoClo #OpenSource #Biotech 👉 Try it: app.opencloning.org Feedback welcome!

Do you like #cloning or #MolBiol? Do you like #OpenSource software? Do you like keeping structured research records in a way that can also save you time and help avoid mistakes? If you answered 'Yes' to any of the above, then check out this new update to #OpenCloning from @manu-lera.bsky.social 👇

Manuel Lera-Ramirez@manu-lera.bsky.social · 6mo ago

🚀 Excited to launch the #OpenCloning Assembler! 🧬 Built to demystify Golden Gate for beginners and save time for experts -> MoClo assembly blazing fast ⚡ ✍️ Use existing syntaxes or design your own! #SynBio #GoldenGate #MoClo #OpenSource #Biotech 👉 Try it: app.opencloning.org Feedback welcome!

🚀 A long-requested feature just landed in #OpenCloning 🔬🧬 You can now manually annotate sequences and create primers right from the editor ✨ Hope it makes your workflow a bit smoother! 📨 If you want to stay updated with upcoming features, subscribe to the mailing list (link in the comments)

New paper alert!! Led by Lucas, we automated all the design steps for genome engineering experiments in streptomycetes. If you are using our Streptomyces CRISPR toolbox, you can now design hundreds of experiments in a matter of minutes. @tilmweber.bsky.social @kblin.bsky.social ....

StreptoCAD: An Open-Source Software Toolbox Automating Genome Engineering Workflows in Streptomycetes

Streptomycetes hold immense potential for discovering novel bioactive molecules for applications in medicine or sustainable agriculture. However, high-throughput exploration is hampered by the current Streptomyces genetic engineering methods that involve the manual design of complex experimental molecular biological engineering strategies for each targeted gene. Here, we introduce StreptoCAD, an open-source software toolbox that automates and streamlines the design of genome engineering strategies in Streptomyces, supporting various CRISPR-based and gene overexpression methods. Once initiated, StreptoCAD designs all necessary DNA primers and CRISPR guide sequences, simulates plasmid assemblies (cloning) and the resulting modification of the genomic target(s), and further summarizes the information needed for laboratory implementation and documentation. StreptoCAD currently offers six design workflows, including the construction of overexpression libraries, base-editing, including multiplexed CRISPR-BEST plasmid generation, and genome engineering using CRISPR-Cas9, CRISPR-Cas3, and CRISPRi systems. In addition to automating the design process, StreptoCAD further secures compliance with the FAIR principles, ensuring reproducibility and ease of data management via standardized output files. To experimentally demonstrate the design process and output of StreptoCAD, we designed and constructed a series of gene overexpression strains, and performed CRISPRi knockdowns in Streptomyces Gö40/10, underscoring the tool’s efficiency and user-friendliness.. This tool simplifies complex genetic engineering tasks and promotes collaboration through standardized workflows and design parameters. StreptoCAD is set to transform genome engineering in Streptomyces, making sophisticated genetic manipulations accessible for all and accelerating natural product discovery.

pubs.acs.org