TCID | Name | Domain | Kingdom/Phylum | Protein(s) |
---|---|---|---|---|
1.B.70.1.1 | Putative outer membrane porin | Bacteria |
Pseudomonadota | OMP of Acinetobacter johnsonii (D0SAV4) |
1.B.70.1.2 | OmpIIIA or RopA of 340 - 166 aas and 1 N-terminal TMS. RopA and RopB (TC# 1.B.4.2.19), which have β-barrel structures, may be involved in the control of plant-microbial symbiosis. Kosolapova et al. 2019 demonstrated that the full-length RopA and RopB proteins form amyloid fibrils in vitro. These fibrils are β-sheet-rich, bind Thioflavin T (ThT), exhibit green birefringence upon staining with Congo Red (CR), and resist treatment with ionic detergents and proteases. Heterologously expressed RopA and RopB intracellularly aggregate in yeast and assemble into amyloid fibrils at the surface of E. coli. The capsules of the R. leguminosarum cells bind CR, exhibit green birefringence, and contain fibrils of RopA and RopB in vivo (Kosolapova et al. 2019). Based on similarity, they form passive diffusion pores that allow small molecular weight hydrophilic materials to cross the outer membrane. | Bacteria |
Pseudomonadota | OmpIIIA or RopA of Rhizobium leguminosarum |
1.B.70.1.3 | Porin family protein | Bacteria |
Pseudomonadota | HMPREF0731_0100 of Roseomonas cervicalis ATCC 49957 |
1.B.70.1.4 | Porin | Bacteria |
Pseudomonadota | MetexDRAFT_5733 of Methylobacterium extorquens DSM 13060 |
1.B.70.1.5 | Porin | Bacteria |
Pseudomonadota | Bind_1873 of Beijerinckia indica subsp. indica |
1.B.70.1.6 | Putative uncharacterized protein | Bacteria |
Pseudomonadota | Smlt2944 of Stenotrophomonas maltophilia |
1.B.70.1.7 | Secreted porin family protein | Bacteria |
Pseudomonadota | Sfri_0510 of Shewanella frigidimarina |
1.B.70.1.8 | Putative uncharacterized protein | Bacteria |
Pseudomonadota | Bpro_0404 of Polaromonas sp. |
1.B.70.1.9 | Putative porin of 539 aas | Bacteria |
Planctomycetota | Porin of Rhodopirellula sallentina |
1.B.70.1.10 | Putative porin of 450 aas | Bacteria |
Chlorobiota | Porin of Pelodictyon luteolum |
1.B.70.1.11 | Probable porin of 345 aas and 16 beta strands, RopA1. Required for infection by two phage, ΦM12 and N3 (Crook et al. 2013). | Bacteria |
Pseudomonadota | RopA1 of Sinorhizobium meliloti |
1.B.70.1.12 | Putative porin of 506 aas, BLpp. Induced by glyphosate (N-[phosphonomethyl] glycine) when applied to Bradyrhizobium sp. (Lupinus)-nodulated lupin plants but not when applied to free living cultures (de María et al. 2007). | Bacteria |
Pseudomonadota | BLpp of Bradyrhizobium sp. (Lupinus) |
1.B.70.1.13 | Outer membrane porin, RopAe of 338 aas. It is induced by copper deficiency and transports copper ions (González-Sánchez et al. 2018). | Bacteria |
Pseudomonadota | RopAe of Rhizobium etli |
1.B.70.1.14 | Omp43 of 402 aas and 1 N-terminal TMS. This 43-kDa OMP is the major porin protein in Bartonella henselae strains, and its loss leads to changes to the expression of many genes (Kang et al. 2018). | Bacteria |
Pseudomonadota | Omp43 of Bartonella henselae |
1.B.70.1.15 | Porin Omp2B of 362 aas. Allows facilitated diffusion of solutes through the porin (Vassen et al. 2019). Among surface protein antigens, the Omp2a and Omp2b porins display the highest diversity in Brucella species. The genes coding for these proteins are closely linked in the Brucella genome and oriented in opposite directions. They share between 85 and 100% sequence identity depending on the Brucella species, biovar, or genotype. Only the omp2b gene copy has been shown to be expressed, and genetic variation is extensively generated by gene conversion between the two copies. Size reduction occurred affecting the region encoding the surface L5 loop of the porin, previously shown to be critical in sugar permeability, followed by a nucleotide reduction in the surface L8 loop-encoding region. It resulted in a final omp2b gene size shared between two distinct clades of non-classical Brucella spp. (African bullfrog isolates) and the group of classical Brucella species (Leclercq et al. 2019). | Bacteria |
Pseudomonadota | Omp2B of Brucella abortus |