BBa_I751411BBa_I751411 Version 1 (Component)BioBrick to Tokyo Standard adapter, for SpeI, reverse
BBa_I751401BBa_I751401 Version 1 (Component)BioBrick to Tokyo Standard adapter, for XbaI, reverse
pBBknockBBa_J107077 Version 1 (Component)pBBknock standard vector for allelic replacement
BBa_K1065201BBa_K1065201 Version 1 (Component)Pxyl+GFP in an integrative <i>Bacillus subtilis</i> specific backbone
BBa_K823055BBa_K823055 Version 1 (Component)pSB1C3F-Vector pSB1C3 with RFP-cassette in Freiburg Standard
BBa_K2066118BBa_K2066118 Version 1 (Component)Synthetic Enhancer with 3X TetO cassette (52s) on UNS backbone
BBa_K2066113BBa_K2066113 Version 1 (Component)Synthetic Enhancer with 2X TetO cassette (55as) on UNS backbone
BBa_J69591BBa_J69591 Version 1 (Component)GFP reporter device - using Standard Promoter (1RPU)
BBa_J95030BBa_J95030 Version 1 (Component)BioBrick terminator measurement standard for Rhodobacter sphaeroides
BBa_K1416002BBa_K1416002 Version 1 (Component)pStG: a ncAA Synthetase/tRNA Pair Plasmid Standard
BBa_K524201BBa_K524201 Version 1 (Component)Modified ccdB for plasmid assembly on standard vectors
CBDcexBBa_K863101 Version 1 (Component)Cellulose binding Domain of Cellulomonas Fimi Exoglucanse (Freiburg-Standard)
BBa_J95042BBa_J95042 Version 1 (Component)Promoter measurement standard (B1009) for E coli
BBa_K2066038BBa_K2066038 Version 1 (Component)Sigma54 Enhancer 57S, no DT, UNS standard
BBa_K2066039BBa_K2066039 Version 1 (Component)Sigma54 Enhancer 57S with DT, UNS Standard
Holin, T4BBa_K112003 Version 1 (Component)T4 holin, without start or stop codon, berkeley standard
pSBBs2EBBa_K823027 Version 1 (Component)pSB<sub>Bs</sub>2E: Empty backbone for integration into Bacillus subtilis lacA locus
BBa_K547000BBa_K547000 Version 1 (Component)ready-to-inject backbone for T3SS, SlrP taged, with Bsa I cloning site
linkerBBa_K157013 Version 1 (Component)15 aa flexible glycine-serine protein domain linker; Freiburg standard
BBa_J95012BBa_J95012 Version 1 (Component)Reference standard for BioBrick promoter and RBS characterization
BBa_J95013BBa_J95013 Version 1 (Component)Reference standard for BioBrick promoter and RBS characterization
BBa_K077667BBa_K077667 Version 1 (Component)K077666 with a standard HSL / LuxR dependant promoter (R0062)
His_FluABBa_S04282 Version 1 (Component)K157011(His affinity tag; Freiburg standard):K157004(Fluorescin-A-binding )
BBa_I746204BBa_I746204 Version 1 (Component)FepA L8 Mutant with Elowitz RBS and Standard Terminator
BBa_M1613BBa_M1613 Version 1 (Component)mioC promoter + RBS + GFP + double terminator (standard 10 compatible)
BBa_J95045BBa_J95045 Version 1 (Component)reference standard for Promoter measurement (B0015) for E coli
CBDclos(T7BBa_K863112 Version 1 (Component)Cellulose binding domain of C. cellulovorans with T7, RBS, GS-Linker (Freiburg-Standard)
BBa_K1179006BBa_K1179006 Version 1 (Component)A backbone for ligation of the Acyl-TyA domain to a protein of your choice
pSBBs4SBBa_K823022 Version 1 (Component)pSB<sub>Bs</sub>4S: Empty backbone for integration into <i/>Bacillus subtilis thrC</i> locus
BBa_K1085014BBa_K1085014 Version 1 (Component)pSB1AC3-HySp: Integrational backbone into <i>B. subtilis amyE</i> locus with IPTG inducible promoter
xis domainBBa_K112203 Version 1 (Component){< xis >} The bacteriophage lambda xis gene without start or stop codons; assembly standard 21
CBDclosBBa_K863111 Version 1 (Component)Cellulose binding domain of C. cellulovorans cellulose binding protein gene (Freiburg-Standard)
CBDcex(T7)BBa_K863102 Version 1 (Component)Cellulose binding Domain of C. Fimi Exoglucanase with T7, RBS, GS-Linker (Freiburg-Standard)
BBa_J95031BBa_J95031 Version 1 (Component)BioBrick promoter and RBS measurement reference standard for R. sphaeroides
BBa_M1680BBa_M1680 Version 1 (Component)Standard parts assembly for detection of high glucose levels using FAS promoter
xis domainBBa_K112202 Version 1 (Component){xis>} The lambda xis gene with no stop codon; assembly standard 21
BBa_K1791001BBa_K1791001 Version 1 (Component)Standard RBS expressing MS2 Coat protein ribozyme affinity purification (RAP)
pSBBs1CBBa_K823023 Version 1 (Component)pSB<sub>Bs</sub>1C: Empty backbone for integration into <i>Bacillus subtilis</i> <i>amyE</i> locus
BBa_K2066112BBa_K2066112 Version 1 (Component)Synthetic Enhancer Project: Ntr promoter driven NRII2302 (mut) on UNS Standard
GFP_FreibuBBa_K863120 Version 1 (Component)green fluorescent protein derived from jellyfish Aequeora victoria wild-type GFP (Freiburg-Standard)
SBOL Compliant SoftwareSBOLCompliantSoftware_collection Version 1 (Collection)A collection of software that supports the Synthetic Biology Open Language (SBOL) standard
xisBBa_K112205 Version 1 (Component){rbs.xis!} The xis gene with native rbs site and stop codon; assembly standard 21
BBa_K283026BBa_K283026 Version 1 (Component)rbs-GFP(LVA)-terminators (Backbone: pSB1A2)
BBa_K299800BBa_K299800 Version 1 (Component)standard biobrick scar (if next part starts with ATG)
MLSBBa_K1119001 Version 1 (Component)Mitochondrial Leader Sequence with RFC25 standard
BBa_K1484005BBa_K1484005 Version 1 (Component)AmilCP chromoprotein in BBa and MoClo standard
BBa_K101015BBa_K101015 Version 1 (Component)Standard Promoter with RBS, GFP and terminator
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.