BBa_K299112BBa_K299112 Version 1 (Component)[promoter].[TxbaIG].[J61100RBS].[scarA=T].[RFP]
BBa_K1173501BBa_K1173501 Version 1 (Component)CcaS, CcaR, PcpcG2, cI(lambda), magenta
BBa_K861178BBa_K861178 Version 1 (Component)Pcar efficacy testing device with CRP overexpressed
BBa_K299110BBa_K299110 Version 1 (Component)[promoter].[TxbaIG].[J61100 RBS].[scarA=T].[YFP]
BBa_K299116BBa_K299116 Version 1 (Component)[promoter].[TxbaIG].[J61100 RBS].[scarA=T].[mCherryNLS]
BBa_K299115BBa_K299115 Version 1 (Component)[promoter].[TxbaIG].[J61100 RBS].[scarA=T].[SBFP]
BBa_K299113BBa_K299113 Version 1 (Component)[promoter].[TxbaIG].[J61100 RBS].[scarA=T].[mCherry]
BBa_K299117BBa_K299117 Version 1 (Component)[promoter].[TxbaIG].[J61100 RBS].[scarA=T].[mBanana]
BBa_K299111BBa_K299111 Version 1 (Component)[promoter].[TxbaIG].[J61100 RBS].[scarA=T].[CFP]
BBa_K299114BBa_K299114 Version 1 (Component)[promoter].[TxbaIG].[J61100 RBS].[scarA=T].[mOrrange]
BBa_K259008BBa_K259008 Version 1 (Component)BioScaffold Linker - Removes Stop Codons & scars & replaces with a Gly-Ser linker
BBa_K259009BBa_K259009 Version 1 (Component)BioScaffold Linker - Removes Stop Codons & scars & replaces with a Gly-Ser linker
BBa_K299801BBa_K299801 Version 1 (Component)standard biobrick scar (if next sequence does NOT start with ATG)
BBa_K1968021BBa_K1968021 Version 1 (Component)Synechocystis Sca6-2 Promoter with RBS* (LacI repressible) Phytobrick
BioScaffolBBa_K259004 Version 1 (Component)BioScaffold Linker - Removes Stop Codons & scars & replaces with a Gly-Ser linker
BioScaffolBBa_K259002 Version 1 (Component)BioScaffold Linker - Removes Stop Codons & scars & replaces with a Gly-Ser linker
BBa_K1833996BBa_K1833996 Version 1 (Component)Oligonucleotide synthesis scar
BBa_K902062BBa_K902062 Version 1 (Component)CAR (<i>Nocardia</i> carboxylic acid reductase)
BBa_K1897038BBa_K1897038 Version 1 (Component)Scar site generated by 3A Assembly
BBa_K1583054BBa_K1583054 Version 1 (Component)Non-coding scar site in between RBS and gene
BBa_K1232000BBa_K1232000 Version 1 (Component)Green light inducible sfGFP = [PCpcG2-RBS-sfGFP-CcaS](rev)-CcaR
BBa_K1897039BBa_K1897039 Version 1 (Component)Scar site generated by 3A Assembly
BBa_K1159991BBa_K1159991 Version 1 (Component)10/10 NC Assembly Scar
BBa_K299317BBa_K299317 Version 1 (Component)J23100[promoter].K299107[TxbaIG].J61117[RBS] No b-brick scars between
BBa_K299307BBa_K299307 Version 1 (Component)J23100[promoter].K299107[TxbaIG].J61107[RBS] No b-brick scars between
BBa_K299201BBa_K299201 Version 1 (Component)J23100[promoter].K299107[TxbaIG].J61101[RBS] **no b-brick scars between**
BBa_K299301BBa_K299301 Version 1 (Component)J23100[promoter].K299107[TxbaIG].J61101[RBS] **no b-brick scars between**
BBa_K299300BBa_K299300 Version 1 (Component)J23100[promoter].K299107[TxbaIG].J61100[RBS] No b-brick scars between
BBa_K299327BBa_K299327 Version 1 (Component)J23100[promoter].K299107[TxbaIG].J61127[RBS] No b-brick scars between
BBa_K874300BBa_K874300 Version 1 (Component)IPTG inducible expression of M.ScaI methyltansferase (IPTG -> M.ScaI) (ScaI silently mutated out)
BBa_K299800BBa_K299800 Version 1 (Component)standard biobrick scar (if next part starts with ATG)
BBa_K1159992BBa_K1159992 Version 1 (Component)10/10 C Assembly Scar
BBa_K1920000BBa_K1920000 Version 1 (Component)Pcar-RBS-RFP-TT
Intein_assisted_Bisection_MappingIntein_assisted_Bisection_Mapping_collection Version 1 (Collection)Split inteins are powerful tools for seamless ligation of synthetic split proteins. Yet, their use remains limited because the already intricate split site identification problem is often complicated by the requirement of extein junction sequences. To address this, we augmented a mini-Mu transposon-based screening approach and devised the intein-assisted bisection mapping (IBM) method. IBM robustly revealed clusters of split sites on five proteins, converting them into AND or NAND logic gates. We further showed that the use of inteins expands functional sequence space for splitting a protein. We also demonstrated the utility of our approach over rational inference of split sites from secondary structure alignment of homologous proteins. Furthermore, the intein inserted at an identified site could be engineered by the transposon again to become partially chemically inducible, and to some extent enabled post-translational tuning on host protein function. Our work offers a generalizable and systematic route towards creating split protein-intein fusions and conditional inteins for protein activity control.