codon-optimized human usp30 catalytic domain (Addgene inc)
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codon-optimized human usp30 catalytic domain
Codon Optimized Human Usp30 Catalytic Domain, supplied by Addgene inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/human+usp30+catalytic+domain/lentiviral+vectors+of+plvx+puro+myc+usp30/pm40325251-243-5-10
Average 90 stars, based on 1 article reviews
Codon Optimized Human Usp30 Catalytic Domain, supplied by Addgene inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/human+usp30+catalytic+domain/lentiviral+vectors+of+plvx+puro+myc+usp30/pm40325251-243-5-10
Average 90 stars, based on 1 article reviews
codon-optimized human usp30 catalytic domain - by Bioz Stars,
2026-10
90/100 stars
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Membrane:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Inhibition:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Control:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Activity Assay:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Construct:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Derivative Assay:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Binding Assay:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Ubiquitin Proteomics:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Solubility:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Concentration Assay:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, SDS Page:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Staining:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Incubation:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Fluorescence:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Blocking Assay:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Residue:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Labeling:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Sequencing:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Mutagenesis:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Competitive Binding Assay:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Expressing:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Western Blot:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Drug discovery:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, FLAG-tag:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Modification:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, Comparison:Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30 Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of the mitophagy regulator USP30. Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: codon-optimized Article Title: Chimeric deubiquitinase engineering reveals structural basis for specific inhibition of USP30 and a framework for DUB ligandability Article Snippet: Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.Chimeric USP30 constructs for bacterial expression were generated by amplifying protein-coding parts from plasmids or by incorporating sequences as overhangs into primers.. The following sequences were used: Codon-optimized human USP30 catalytic domain, |
