BBa_J95005BBa_J95005 Version 1 (Component)One of two Bioluminescence based BioBrick RBS characterization kits
BBa_K750003BBa_K750003 Version 1 (Component)LuxI expression device activated by arabinose(Regulated by RBS of 0.3 strength)
BBa_K1758102BBa_K1758102 Version 1 (Component)Translation enhancing 5-UTR + sfGFP under control of T7 promoter
BBa_K2018048BBa_K2018048 Version 1 (Component)BioBrick that produces large amounts of plastic and secretes it
BBa_K1976051BBa_K1976051 Version 1 (Component)Trypsin Fragment of Colicin E2 with B0034 as a RBS
BBa_K395163BBa_K395163 Version 1 (Component)KanR activated by RhlR and C4HSL(AHL of Rhl family)
BBa_K1935015BBa_K1935015 Version 1 (Component)NLP-22 under control of FRQ promoter (pFRQ::NLP-22)
BBa_M36979BBa_M36979 Version 1 (Component)Coenzyme B-12 Biosensor for E. coli (
BBa_M36980BBa_M36980 Version 1 (Component)Coenzyme B-12 Biosensor for E. coli (
BBa_I8031BBa_I8031 Version 1 (Component)Booperator aiia test: degradation of HSL "A" by aiia
BBa_I8030BBa_I8030 Version 1 (Component)Booperator aiia test: degradation of HSL "B" by aiia
BBa_K648029BBa_K648029 Version 1 (Component)OR, operating region for Lambda switch
BBa_K1961004BBa_K1961004 Version 1 (Component)PbrR generator expressed by GFP under autoregulation of PTet
BBa_K2056005BBa_K2056005 Version 1 (Component)NOx(Oxides of Nitrogen) sensor device (pYeaR-Yellow chromoprotein)
P-alsTBBa_K818300 Version 1 (Component)Promoter alsT, repressed by TnrA during conversion of NH4 to Glutamine in B. subtilis.
BBa_M36745BBa_M36745 Version 1 (Component)The sensor codes for AraC, a transcription factor, which represses the operon.Arabinose induces tran
BBa_K758003BBa_K758003 Version 1 (Component)UAS, this part consists of five UAS sequences and hsp70 TATA.
BBa_K2170110BBa_K2170110 Version 1 (Component)Intermediate of biotin binding receptor (CMV_BM40_BAP_NanoLuc_A3C5) in RFC[25] N-part
BBa_I20245BBa_I20245 Version 1 (Component)A device used to characterize promoters throught measurement of GFP expression
BBa_K1485002BBa_K1485002 Version 1 (Component)A kind of GFP for eukaryotes with a linker (GS)x5
BBa_K382066BBa_K382066 Version 1 (Component)intron hairpin RNAi knockdown of Ger allergen in Basta plant vector
BBa_I20246BBa_I20246 Version 1 (Component)A device used to characterize promoters throught measurement of RFP expression
BBa_K654096BBa_K654096 Version 1 (Component)E. coli Reference Promoter (fusion of Anderson 0.51 and 1.00 promoters)
BBa_K382070BBa_K382070 Version 1 (Component)intron hairpin RNAi knockdown of LTP allergen in Basta plant vector
BBa_J100031BBa_J100031 Version 1 (Component)Constitutive promoter C on Gene 1 of T7, transcribes RNA Pol.
BBa_K2170111BBa_K2170111 Version 1 (Component)Intermediate of biotin binding receptor (CMV_BM40_eMA) in RFC[25] N-part
BBa_K382067BBa_K382067 Version 1 (Component)intron hairpin RNAi knockdown of Ger allergen in Kan plant vector
BBa_K382071BBa_K382071 Version 1 (Component)intron hairpin RNAi knockdown of LTP allergen in Kan plant vector
BBa_K2170112BBa_K2170112 Version 1 (Component)Intermediate of biotin binding receptor (CMV_BM40_scAvidin) in RFC[25] N-part
BBa_I20244BBa_I20244 Version 1 (Component)A device used to characterize promoters throught measurement of GFP expression
BBa_J72210BBa_J72210 Version 1 (Component)Kanamycin resistant BAC with R6K origin, pGlpT 5' of cloning site
BBa_I20247BBa_I20247 Version 1 (Component)A device used to characterize promoters throught measurement of RFP expression
BBa_K2170117BBa_K2170117 Version 1 (Component)Intermediate of secretion efficiency construct (NanoLuc_StrepTag_PolyA) in RFC[25] C-part
TALE3BBa_K1861701 Version 1 (Component)TALE that binds the sequence T CCGACTCGCTGT
TALE1BBa_K1861501 Version 1 (Component)TALE that binds the sequence T CTCCACCCCATT
TALE2BBa_K1861601 Version 1 (Component)TALE that binds the sequence T GTCGTAACAACT
TriIBBa_K1152005 Version 1 (Component)Expression cassette for NRPS synthesizing a Phe-Orn-Leu-Tripeptide
BBa_K748001BBa_K748001 Version 1 (Component)AgrC protein coding sequence. AgrC is main component of S.aureus agr quorum sensing system.
BBa_K2055020BBa_K2055020 Version 1 (Component)Overexpression of TetH with heat shock promoter and Inverter.
BBa_K1051205BBa_K1051205 Version 1 (Component)The RFP with degradation tag
BBa_K1316011BBa_K1316011 Version 1 (Component)pFAB640 regulating the ccmAH cluster
BBa_K525007BBa_K525007 Version 1 (Component)Fusion protein of S-Layer SgsE with T7/lac and BisdA and BisdB
BBa_K525008BBa_K525008 Version 1 (Component)Fusion protein of S-Layer SbpA with T7/lac and BisdA and BisdB
BBa_K187119BBa_K187119 Version 1 (Component)folB, ORF, reverse primer
GFP-ASVBBa_K1639023 Version 1 (Component)GFP with an ASV degradation tag with a half-life of ~110 min
BBa_K1585321BBa_K1585321 Version 1 (Component)glgCAB for polycistronic expression of glycogen synthesis genes in E.coli
BBa_K609000BBa_K609000 Version 1 (Component)nisI+pH induced promoter rcfB+ repressor LacR of lac operon
BBa_K2018050BBa_K2018050 Version 1 (Component)BioBrick that produces large amounts of plastic and secretes it
BBa_K116000BBa_K116000 Version 1 (Component)A homolog of OCT3 (organic cation transporter 3) from E coli. K12
SEGASEGA_collection Version 1 (Collection)In the Standardized Genome Architecture (SEGA), genomic integration of DNA fragments is enabled by λ-Red recombineering and so-called landing pads that are a common concept in synthetic biology and typically contain features that i) enable insertion of additional genetic elements and ii) provide well-characterized functional parts such as promoters and genes, and iii) provides insulation against genome context-dependent effects. The SEGA landing pads allow for reusable homology regions and time-efficient construction of parallel genetic designs with a minimal number of reagents and handling steps. SEGA bricks, typically synthetic DNA or PCR fragments, are integrated on the genome simply by combining the two reagents (i.e. competent cells and DNA), followed by incubation steps, and successful recombinants are identified by visual inspection on agar plates. The design of the SEGA standard was heavily influenced by the Standard European Vector Architecture (SEVA). SEGA landing pads typically hosts two major genetic “control elements” that influence gene expression on the transcriptional (C1), and translational (C2) level. Furthermore, landing pads contain gadgets such as selection and counterselection markers.