bcpB Resolved · high auto-curated

H37Rv Rv1608c · MTBC0 mtbc0_001714 · 154 aa · 1819262–1819726 MTBC0 (-) · RefSeq NP_216124.1

Genomic neighbourhood (genome browser)

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+ strand − strand nadB (Rv1595) — requalified: L-aspartate oxidase nadB nadC (Rv1596) — requalified: carboxylating nicotinate-nucleotide diphosphorylase nadC Rv1597 (Rv1597) — family_assigned: methyltransferase domain-containing protein Rv1598c (Rv1598c) — family_assigned: nitroreductase family deazaflavin-dependent oxidoreductase hisD (Rv1599) — requalified: histidinol dehydrogenase hisD hisB (Rv1601) — requalified: imidazoleglycerol-phosphate dehydratase HisB hisH (Rv1602) — family_assigned: imidazole glycerol phosphate synthase subunit HisH hisA (Rv1603) — requalified: bifunctional 1-(5-phosphoribosyl)-5-((5-phosphoribosylamino) impA (Rv1604) — family_assigned: inositol monophosphatase family protein hisF (Rv1605) — family_assigned: imidazole glycerol phosphate synthase subunit HisF hisI (Rv1606) — requalified: phosphoribosyl-AMP cyclohydrolase chaA (Rv1607) — requalified: calcium:proton antiporter chaA bcpB (Rv1608c) — requalified: peroxiredoxin BcpB trpE (Rv1609) — requalified: anthranilate synthase component I trpE Rv1610 (Rv1610) — family_assigned: TIGR02234 family membrane protein trpC (Rv1611) — requalified: indole-3-glycerol phosphate synthase TrpC trpA (Rv1613) — family_assigned: tryptophan synthase subunit alpha lgt (Rv1614) — requalified: prolipoprotein diacylglyceryl transferase lgt Rv1615 (Rv1615) — family_assigned: TM2 domain-containing protein Rv1616 (Rv1616) — family_assigned: DUF2752 domain-containing protein pykA (Rv1617) — requalified: pyruvate kinase pykA tesB1 (Rv1618) — requalified: acyl-CoA thioesterase II tesB1 Rv1619 (Rv1619) — requalified: bifunctional lysylphosphatidylglycerol flippase/synthetase M Rv1619 1 808 kb 1 812 kb 1 816 kb 1 820 kb 1 824 kb 1 828 kb

This gene (outlined) in its genomic context; arrows are neighbouring genes coloured by verdict. Click any gene to navigate. Pan and zoom in the full browser.

Annotation: from legacy to revised

Legacy (H37Rv / Mycobrowser)peroxiredoxin
MTBC0 PGAP re-annotationperoxiredoxin BcpB
Revised (this work)Peroxiredoxin BcpB. Pfam: Redoxin (PF08534.17), AhpC-TSA (PF00578.28).
Functional category (TubercuList)virulence, detoxification, adaptation

Auto-curated: this verdict and function were generated by rules from PGAP + Pfam + Foldseek and have not been hand-reviewed.

In the literature (TB corpus sweep) 3 publications

3 TB publications mention this gene. 3 publications discuss this gene (count verified against title and abstract text). Queried separately, 4 records carry a M. tuberculosis context and none a non-TB mycobacterial context. The three counts come from three distinct PubMed queries (the total is text-verified, the context counts are raw query volumes), so they neither partition the total nor need to add up to it.

PublicationDate
Investigating a unilateral pleural effusion: A tale of a medical error and diagnostic delays. doi:10.4103/0970-2113.197108 2017
PrxQ B from Mycobacterium tuberculosis is a monomeric, thioredoxin-dependent and highly efficient fatty acid hydroperoxide reductase. doi:10.1016/j.freeradbiomed.2016.10.005 2016
Peroxiredoxin systems in mycobacteria. doi:10.1007/978-1-4020-6051-9_9 2007
3 records returned by the alias sweep

Searched as: Rv1608c, bcpB, Mb1634c, MMAR_2410, MSMEG_3216, MAB_2662 — each in conjunction with a mycobacterial context term. Swept 2026-09-07.

PublicationJournalYear
Investigating a unilateral pleural effusion: A tale of a medical error and diagnostic delays. doi:10.4103/0970-2113.197108 Lung India 2017
PrxQ B from Mycobacterium tuberculosis is a monomeric, thioredoxin-dependent and highly efficient fatty acid hydroperoxide reductase. doi:10.1016/j.freeradbiomed.2016.10.005 Free Radic Biol Med 2016
Peroxiredoxin systems in mycobacteria. doi:10.1007/978-1-4020-6051-9_9 Subcell Biochem 2007

Title+abstract index only: a paper that names this gene solely in its body text, a figure legend or a supplement is invisible here. That is why this list sits beside the curated layer rather than replacing it - Rv0007's characterisation, found by a full-text sweep, returns zero in this one. Absence from this list is not absence from the literature. Source: PubMed E-utilities sweep (esearch + esummary), every alias of the gene searched in conjunction with a mycobacterial context term; ambiguous common-word aliases excluded. phase198, 2026-09-06.

This layer CITES the literature and adds context; it does not change the verdict or the function stated elsewhere in this fiche. This distinguishes a gene that is dark because nobody has looked from one that is dark despite having been studied. Source: PubMed (whole): H37Rv locus tag + GENE NAME + ortholog identifiers (Mb…, MMAR_…, MSMEG_…, ML…, MAB_…), under a mycobacterial context filter; hits verified against the abstract text. Species-context counts distinguish M. tuberculosis literature from literature on other mycobacteria. phase76/phase77, 2026-07-13.

CRISPRi vulnerability

Vulnerability index 1.09 (95% CI 0.02 to 2.86). A more negative index = more vulnerable to knockdown (better drug-target quality); indicative threshold VI ≤ -6 = highly vulnerable.

Quantitative CRISPRi knockdown, graded (finer than binary Tn-seq essentiality). Source: CRISPRi vulnerability index (Bosch 2021, supplementary Table S2 'mmc3.xlsx', bulk import via Europe PMC -- supersedes the per-gene pebble.rockefeller.edu scrape of phase46_crispri_vulnerability.py).

Caveat on this estimate. Bosch et al. flag this gene's vulnerability estimate as NOT certain, and here that call has a mechanical cause visible in the library itself: every guide targeting this gene is >=21 nt (str_span=0.351 on a 0-1 scale, near the genome floor), and guide repression strength saturates from 21 nt on -- so the library never sampled a partial knockdown for this gene, only the near-maximal repression plateau. The dose-response fit (and this VI) is therefore essentially unconstrained by data, not merely uncertain -- a limitation of the CRISPRi library design for the non-essential class (Bosch et al. 2021), not a defect in this specific measurement. n_guides=8 is descriptive only and does not predict this. Do not cite this VI as a standalone vulnerability claim.

Legacy record & comparison (Mycobrowser)

Mycobrowser functionPeroxide detoxification

The legacy Mycobrowser record is shown for verification. Mycobrowser is no longer maintained; its EC numbers predate recent nomenclature revisions, so a class change usually reflects re-numbering, not a conflict.

Orthologues (reciprocal best hits across mycobacteria)

M. bovis Mb1634c · 100.0% identity
M. marinum MMAR_2410 · 86.0% identity
M. smegmatis MSMEG_3216 · 80.3% identity
M. orygis RJtmp_001680 · 100.0% identity
M. abscessus MAB_2662 · 74.7% identity

Reciprocal-best-hit orthologues (DIAMOND) against the Mycobrowser reference proteomes. A missing species is informative: e.g. a gene absent from M. leprae was likely lost in its reductive genome evolution. Locus tags link to Mycobrowser.

Curated reference (UniProt)

UniProt P9WID9 SwissProt · reviewed · Evidence at protein level
UniProt namePutative peroxiredoxin Rv1608c
EC (curated) EC 1.11.1.24
Curated functionThiol-specific peroxidase that catalyzes the reduction of hydrogen peroxide and organic hydroperoxides to water and alcohols, respectively. Plays a role in cell protection against oxidative stress by detoxifying peroxides and as sensor of hydrogen peroxide-mediated signaling events.

As checked on 2026-09-23, UniProt listed this protein as Putative peroxiredoxin Rv1608c; the revised annotation above goes beyond that record. UniProt may have been recurated since: check the live entry.

Functional vocabulary (eggNOG-mapper, orthology transfer)

COG category O Post-translational modification, protein turnover, chaperones
Preferred namebcpB
eggNOG descriptionPeroxiredoxin
Orthologous groupCOG1225
EC number EC 1.11.1.15
KEGG orthology K03564

Orthology-based transfer (eggNOG 5.0.2, diamond). EC/KO/GO/CAZy are computed annotations, not manual curation; cross-check against the primary literature before treating a specific reaction as established.

Conservation & selection (intra-MTBC, 142 601 strains, snapshot of 2026-09-29)

pN/pS n/a
Polymorphic sites (≥ 0.1% of strains) 0 synonymous, 1 missense, 0 nonsense, 0 frameshift

pN/pS from segregating SNPs (singletons removed) normalised by possible sites. Low pN/pS = purifying selection (a strong signal that a "hypothetical" is a real, constrained gene). A high pN/pS is ambiguous: relaxed constraint or positive selection (drug resistance, antigenic variation) inflate it; e.g. rpoB/katG/pncA score high here for resistance, not loss of function. A clonal disruption (one allele over a clade) suggests lineage pseudogenisation; a convergent one (many independent alleles) is typical of resistance loss-of-function.

Outgroup conservation (beyond the MTBC) Bacteria

Genus-wide presence (~53 non-MTBC Mycobacterium) present in 53/53 (100%) · mean identity 83.4% · 4/4 closest MTBAP relatives
conserved across the genus (present in 53/53 non-MTBC Mycobacterium genomes, incl. distant relatives) — an ancient core gene predating the genus radiation
Phylostratum (deepest detected homolog) MTBC-specific → Mycobacterium → Mycobacteriaceae → Corynebacteriales → Actinomycetia → Bacteria
detected in 13/13 non-Mycobacterium reference genomes (down to Bacteria) · mean identity 49.5%
detected down to outside the phylum (Proteobacteria/Firmicutes controls) — a universally conserved, ancient bacterial gene

Two orthogonal outgroup signals. M. canettii (the immediate outgroup) gives a deep-divergence dN/dS (a low value confirms a constrained, real gene; shown as confident only at ≥8 substitutions, else flagged low-power). Genus-wide presence/absence (tblastn vs assembled non-MTBC genomes) places the gene on the ancient-core ↔ MTBC-specific axis: a gene absent even from the closest MTBAP relatives is a candidate MTBC-specific innovation (possible host-adaptation factor, to confirm by synteny). The phylostratum extends that axis outside the genus (tblastn vs 13 reference genomes spanning Mycobacteriaceae → Corynebacteriales → Actinomycetia → outside the phylum): it is the deepest clade in which a homolog is still detected, i.e. a proxy for gene age. Read it with the null model in mind: a shallow (young) stratum can also reflect homology-detection failure for short or fast-evolving ORFs, so it is a descriptive axis, not a proof of novelty.

Essentiality (transposon mutagenesis) cholesterol-required

DeJesus 2017 callNE · non-essential
What the call meansnon-essential
TA sites (Himar1) 9 in the ORF — 0 in the essential state, 0 growth-defect, 9 non-essential, 0 growth-advantage. Saturation 1.000, mean read count 83.2222222222. A region of the protein devoid of TA sites is invisible to this assay: nothing can be inferred about it, in either direction.
All 9 sites lie in this ORF alone (no overlapping CDS shares any), so the call is attributable to this gene.
CaveatRead with some caution: only 9 TA (Himar1) sites in the whole ORF (atlas median 13). The DeJesus 2017 call rests on fewer independent observations than for a longer gene. If this gene overlaps a neighbour (see Genomic-neighbour overlap section below), some of these 9 sites may fall inside the neighbour's ORF rather than its own, leaving even fewer truly informative sites than the raw count suggests. (P20.3)
Cholesterol catabolismrequired for growth on cholesterol (Griffin 2011)

Genome-wide Himar1 transposon essentiality in H37Rv (DeJesus 2017). An essential call (ES/ESD/GD) is strong, independent evidence that a "hypothetical" locus encodes a functional, selectively required gene — orthogonal to intra-species conservation.

Proteomics (mass spectrometry) detected

MS detectiondetected in 12 of 16 independent MS datasets
Integrated abundance261.0 ppm · rank 713/3519 (79.8th percentile)

Detection by mass spectrometry is direct, experimental evidence that the protein product exists — orthogonal to sequence conservation and to Tn-seq essentiality, and especially decisive for a "hypothetical" locus. Read the dataset count as abundance, not as replication. Measured across this atlas (3,491 detected proteins), the number of datasets a protein appears in tracks its abundance almost monotonically: median 1.2 ppm at 1 dataset of 16, 27 ppm at 10, 392 ppm at 15, 1,325 ppm at 16 — three orders of magnitude. A high count therefore says the protein is abundant more than it says several independent experiments confirmed it. What the count does establish, at any value, is that the product exists.

Predicted localisation (DeepTMHMM + lipobox) no export signal, no TM helix

Predictionno signal peptide, no TM helix (DeepTMHMM class GLOB)
DeepTMHMM classGLOB

A verified absence of signals, which is not a compartment. No Sec/Tat signal peptide, no transmembrane helix and no lipobox were found on this sequence. The predictor reports topology and export signals; it does not measure where the protein ends up, so this page draws no cytoplasmic conclusion from it. In M. tuberculosis that reservation is not theoretical: the 12 Esx paralogues of this atlas — EsxA/ESAT-6 and EsxB/CFP-10 among them, the best-established secreted proteins of the species — carry this very call, because substrates of the type VII (ESX) secretion system leave no recognisable signal. « Secreted » and « no signal peptide » are true together here.

Transmembrane topology and signal peptide from DeepTMHMM (deep-learning reference predictor); lipoproteins from a (myco)bacterial lipobox motif. A sequence-based prediction of subcellular context.

Physico-chemical properties (computed, ProtParam)

Length154 aa
Molecular weight16.9 kDa
Theoretical pI9.23
GRAVY-0.118 (hydrophilic)
Aliphatic index83.0
Aromaticity0.078
Instability index39.2 (stable)

Computed from the ancestral MTBC0 sequence with the ExPASy ProtParam method (Biopython). Descriptive biophysical context: a positive GRAVY flags a hydrophobic (often membrane) protein, a high instability index (>40) predicts a short in-vitro half-life, an extreme pI hints at compartment or binding partner.

Domains (Pfam, hmmscan --cut_ga)

PfamAccessioni-EvalueResiduesDescription
RedoxinPF08534.17 5.1e-202–143 Redoxin
AhpC-TSAPF00578.28 9.8e-334–127 AhpC/TSA family

3D structure (interactive — Mol*/pdbe-molstar)

Experimental structure 5epf (PDBe), the strongest available structural evidence for this gene. Drag to rotate, scroll to zoom; hetero-groups (ligands, ions, waters hidden by default) shown as sticks.

Experimental structures (Protein Data Bank) 1 solved

PDBMethodResolutionCoverage
5epf X-ray diffraction 1.35 Å 100%

Experimentally solved structures mapped from the UniProt accession via PDBe/SIFTS (1 total; up to 8 shown, ranked by sequence coverage then resolution). An experimental structure is direct proof of the folded product and the strongest structural evidence — superseding the predicted ESMFold/AlphaFold models below for any covered region.

Structural search (AlphaFold DB model, Foldseek vs PDB — genome-wide) pLDDT 95.5

PDB hitprobTM (aln)TM (query)TM (target)Seq. id.Cov. q / tE-valueDescription
5epf-assembly1_A 1.00 0.97 0.95 0.95 100% 99% / 99% 8.2e-32 sig 5epf-assembly1_A Crystal structure of Peroxidoxin BcpB from Mycobacterium tuberculosis
3drn-assembly2_B 1.00 0.93 0.91 0.93 28% 99% / 99% 1.1e-16 sig 3drn-assembly2_B The crystal structure of Bcp1 from Sulfolobus Sulfataricus
3hjp-assembly2_D 1.00 0.84 0.84 0.82 29% 97% / 99% 4.8e-15 sig 3hjp-assembly2_D The crystal structure of Bcp4 from Sulfolobus Solfataricus
3ixr-assembly1_A 1.00 0.88 0.88 0.85 27% 99% / 98% 2.7e-14 sig 3ixr-assembly1_A Crystal Structure of Xylella fastidiosa PrxQ C47S Mutant
5enu-assembly2_B 1.00 0.86 0.86 0.86 32% 97% / 98% 2.3e-14 sig 5enu-assembly2_B Crystal structure of an alkyl hyroperoxide reductase from Burkholderia ambifaria

Foldseek search of the AlphaFold DB model (mean pLDDT 95.5, gated at 70) against the PDB — a genome-wide extension of the ESMFold dark-gene search that also covers proteins beyond the single-sequence length limit. Confident structural neighbours (E < 0.01) shown.

Genomic context (neighbours & predicted operon)

Upstream (5' on genome)chaA (+ strand, 34 bp gap)
Downstream (3' on genome)trpE (+ strand, 140 bp gap)

Neighbours from the H37Rv annotation (- strand). The operon is predicted by co-directional intergenic distance (same strand, gaps ≤50 bp) — a transcription-unit hypothesis, not a mapped TSS. For a "hypothetical", co-transcription with a characterised operon is a concrete functional lead (complements the STRING neighborhood channel below).

Published operon evidence (two independent sources)

Roback 2007 (logistic regression: distance + expression correlation, 474 microarrays) no multi-gene operon predicted (singleton)
REMap 2016 (RNA-seq coverage continuity, CDC1551, tag MT1643) expressed, no multi-gene operon (exponential phase, coverage 127.07)
expressed, no multi-gene operon (stationary phase, coverage 38.65) — agrees with the distance heuristic above

Two independent published operon maps, cited alongside the distance heuristic above: an association corroborating or contradicting the heuristic, never proof of shared function. REMap's RNA-seq coverage continuity is the most direct of the three signals; Roback's logistic regression and the intergenic-distance heuristic are statistical proxies.

Functional interaction network (STRING v12, guilt-by-association)

Explore full network →

Node colour = verdict, dashed = still uncharacterised; edge colour = evidence (green experimental, orange genomic-context, grey co-expression), width ∝ score. Click a partner to open its page; "Explore full network" to walk the graph.

Closest characterised functional partner: Rv1610 (membrane protein), high confidence (score 773, all STRING channels except text-mining; the partner is chosen on its genomic-context evidence).

Showing the 15 strongest of this gene's 21 partners at medium confidence (4 at high confidence). The table is an extract, not a neighbourhood: across the proteome the real median degree is 34 while the served median is 15, so no hub, degree distribution or centrality may be read on this table. None of the 21 partners rests on an interaction measured in M. tuberculosis itself.

PartnerProductScoreNo text-miningChannels (≥400)
Rv1610 membrane protein 773 773 ctx neighborhood:773
Rv1609 trpE anthranilate synthase component I 773 773 ctx neighborhood:773
Rv1611 trpC indole-3-glycerol phosphate synthase 708 709 ctx neighborhood:707
Rv1612 trpB tryptophan synthase subunit beta 671 672 ctx neighborhood:670
Rv1613 trpA tryptophan synthase subunit alpha 671 672 ctx neighborhood:670
Rv1614 lgt prolipoprotein diacylglyceryl transferase 659 645 ctx neighborhood:640
Rv2428 ahpC alkyl hydroperoxide reductase subunit AhpC 458 414
Rv1229c mrp multiple resistance/pH adaptation protein 432 396
Rv2238c ahpE paralog peroxiredoxin 566 283 textmining:420
Rv3250c rubB rubredoxin RubB 504 115 textmining:464
Rv3110 moaB1 pterin-4-alpha-carbinolamine dehydratase 631 93 textmining:611
Rv0865 mog molybdopterin biosynthesis protein 720 90 textmining:705
Rv0984 moaB2 pterin-4-alpha-carbinolamine dehydratase 494 90 textmining:467
Rv2131c cysQ 3'(2'),5'-bisphosphate nucleotidase CysQ 679 80 textmining:666
Rv2763c dfrA dihydrofolate reductase 406 72

STRING combines evidence channels (neighborhood, fusion, cooccurrence, coexpression, experimental, database, text-mining) into a 0–1000 score. The ctx badge marks edges carried by the genomic-context channels (conserved neighborhood, fusion, phylogenetic co-occurrence), which are independent of orthology and structure and the strongest signal for an unknown gene. The no text-mining column recomputes the score from data alone, so a link that does not depend on the literature is visible. Association is a function hypothesis, not proof: corroborate with the operon context and the primary literature before assigning a function.

Where the experimental evidence comes from, and why it matters here. STRING's experimental channel fuses interactions measured in M. tuberculosis with interactions measured in another organism and transferred to this pair by orthology. The two are not equivalent for this atlas, whose standing rule is that better studied elsewhere is not a function established in M. tuberculosis. Measured on the served network: of the 38 229 partner pairs shown across the atlas, 13 483 partner rows carry a non-zero experimental channel, and only 106 pairs rest on an interaction measured in M. tuberculosis itself — 0.3 % of the network. Those 106 are long-established complexes (ESX-1/ESAT-6, RNA polymerase with CarD and RbpA, the Pup–Mpa proteasome, gyrase, Emb, GarA with PknB and PknG, the Rel modules); no still-uncharacterised gene is among them. The reason is not a gap in this atlas but in the literature: there is almost no experimental interactome of this bacterium, IntAct holding 134 curated protein pairs for a ~4 000-gene proteome. A exp (transferred) badge is therefore a lead, never a measurement, and an absence of badge is not evidence that the pair does not interact.

Evidence

  • Legacy H37Rv annotation: peroxiredoxin
  • MTBC0 PGAP product: peroxiredoxin BcpB
  • Pfam (hmmscan --cut_ga): Redoxin PF08534.17 (E=5e-20), AhpC-TSA PF00578.28 (E=1e-32)
  • (auto-curated by rules from PGAP + Pfam + Foldseek; not hand-reviewed)

Sources

  • Ancestral sequence & coordinates: Harrison LB et al. (2024), An imputed ancestral reference genome for the MTBC, doi:10.1101/2023.09.07.556366
  • Product annotation: NCBI PGAP on MTBC0; legacy from H37Rv NC_000962.3 (RefSeq NP_216124.1)
  • Domains: Pfam-A via hmmscan --cut_ga — Redoxin (PF08534.17), AhpC-TSA (PF00578.28)
  • Sequence-level signal: ESM Atlas (EvolutionaryScale × BioHub) — exploratory
  • Controlled vocabulary: eggNOG-mapper 2.1.12 (Cantalapiedra et al. 2021, doi:10.1093/molbev/msab293), eggNOG 5.0 DB (Huerta-Cepas et al. 2019) — OG COG1225
  • Curated reference: UniProt P9WID9 (SwissProt, reviewed; Evidence at protein level)
  • Intra-MTBC selection: pN/pS and disruption from SPDI variants of 142 601 MTBC strains (this work, local collection vs H37Rv NC_000962.3)
  • Genome-wide structure: AlphaFold DB model (Jumper et al. 2021, doi:10.1038/s41586-021-03819-2; Varadi et al. 2024, doi:10.1093/nar/gkad1011) searched vs PDB with Foldseek (mean pLDDT 95.5)
  • Interaction network: STRING v12.0 (Szklarczyk et al. 2023, doi:10.1093/nar/gkac1000), taxon 83332, CC-BY 4.0 — 21 functional partner(s); context anchor Rv1610
  • Essentiality: genome-wide transposon mutagenesis in H37Rv — DeJesus et al. 2017 (mBio, doi:10.1128/mBio.02133-16, CC BY); cholesterol requirement from Griffin et al. 2011 (doi:10.1371/journal.ppat.1002251)
  • Proteomics: integrated mass-spectrometry abundance from PaxDb 5.0 (Huang et al. 2023, doi:10.1016/j.mcpro.2023.100640), taxon 83332 — weighted average of 16 datasets, incl. Schubert et al. 2013 (doi:10.1016/j.chom.2013.04.008) and Albrethsen et al. 2013 (doi:10.1074/mcp.M112.018846)
  • Functional category: TubercuList scheme (Cole et al. 1998, doi:10.1038/31159), via Mycobrowser (Kapopoulou et al. 2011, doi:10.1016/j.tube.2010.09.006)
  • Orthologues: reciprocal best hits (DIAMOND, Buchfink et al. 2021, doi:10.1038/s41592-021-01101-x) against Mycobrowser release 5 reference proteomes
  • Experimental structures: PDBe/SIFTS UniProt→PDB mapping (Dana et al. 2019, doi:10.1093/nar/gky1114)
  • Genomic context / operon: H37Rv annotation; operon predicted by co-directional intergenic distance (Salgado et al. 2000, doi:10.1073/pnas.030539397)
  • Physico-chemical properties: ExPASy ProtParam method via Biopython (Gasteiger et al. 2005), computed from the MTBC0 sequence
  • Predicted localisation: DeepTMHMM (Hallgren et al. 2022, doi:10.1101/2022.04.08.487609) for transmembrane topology and signal peptide
  • Primary literature: none located yet; annotation rests on the domain/homology sources above.

Ancestral MTBC0 protein sequence

>mtbc0_001714|Rv1608c|bcpB
MKTGDTVADFELPDQTGTPRRLSVLLSDGPVVLFFYPAAMTPGCTKEACHFRDLAKEFAEVRASRVGISTDPVRKQAKFAEVRRFDYPLLSDAQGTVAAQFGVKRGLLGKLMPVKRTTFVIDTDRKVLDVISSEFSMDAHADKALATLRAIRSG