ppsA Resolved · high auto-curated
H37Rv Rv2931 · MTBC0 mtbc0_003114 ·
1876 aa ·
3266442–3272072 MTBC0
(+) ·
RefSeq NP_217447.1
Genomic neighbourhood (genome browser)
Open in full genome browser →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) | phthiocerol synthesis polyketide synthase type I PpsA |
|---|---|
| MTBC0 PGAP re-annotation | phthiocerol type I polyketide synthase PpsA |
| Revised (this work) | Phthiocerol type I polyketide synthase PpsA. Pfam: ketoacyl-synt (PF00109.33), Ketoacyl-synt_C (PF02801.29), KAsynt_C_assoc (PF16197.12), Acyl_transf_1 (PF00698.27), PKS_DH_N (PF21089.4), KR (PF08659.17), PP-binding (PF00550.32). |
| Functional category (TubercuList) | lipid metabolism |
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) 22 publications
22 TB publications mention this gene. 22 publication(s) discuss this gene (22 in a M. tuberculosis context, 2 in other mycobacteria — M. leprae (2), M. marinum (1)).
| Publication | Date |
|---|---|
| The ppsA-ppsE gene cluster in Mycobacterium bovis: structure, function, and role in virulence. doi:10.1007/s00203-026-04963-x | 2026 |
| Enhancing tuberculosis care in the private sector: Role of innovative private sector engagement model under programmatic settings in India. doi:10.1371/journal.pgph.0006333 | 2026 |
| Impact and Economic Evaluation of the Patient-Provider Support Agency Model Under India's National Tuberculosis Elimination Program: Protocol for a Cohort Study. doi:10.2196/76302 | 2026 |
| Enhancing tuberculosis care in Madhya Pradesh through public-private partnerships: An evaluation of the patient provider support agency (PPSA) model. doi:10.1016/j.ijtb.2024.08.010 | 2025 |
| Operational priorities for engaging with India's private healthcare sector for the control of tuberculosis: a modelling study. doi:10.1136/bmjopen-2022-069304 | 2024 |
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.
Genomic-neighbour overlap (structural caveat) co-directional · 0 % of gene
| Neighbour | fadD26 (Rv2930, + strand) |
|---|---|
| Overlap | 4 bp, 0 % of this gene's length |
co-directional overlap: ordinary (e.g. shared stop/start codons in an operon), not the Rv2438A-type artefact P20.1, derived from GFF3 gene coordinates, 2026-08-03.
Post-translational modifications
3 reported modified residue(s), incl. 2 phosphosite(s):
N-acetylthreonine @2, O-(pantetheine 4'-phosphoryl)serine @43, O-(pantetheine 4'-phosphoryl)serine @1796.
Experimentally reported post-translational modification(s). A phosphosite indicates the protein is expressed and is a substrate of the M. tuberculosis Ser/Thr/Tyr kinase signalling network — a regulatory context, NOT a molecular function. Source: UniProt (Modified residue features; PTM sites curated from the M. tuberculosis literature).
CRISPRi vulnerability
Vulnerability index 1.36 (95% CI -0.36 to 4.22). 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, pebble.rockefeller.edu).
Legacy record & comparison (Mycobrowser)
| Mycobrowser function | Involved in phenolpthiocerol and phthiocerol dimycocerosate (dim) biosynthesis: extension of C18 with malony CoA (partial reduction). |
|---|
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 |
Mb2956
· 99.6% identity |
|---|---|
| M. leprae |
ML2357c
· 75.3% identity |
| M. marinum |
MMAR_1776
· 56.0% identity |
| M. orygis |
RJtmp_003023
· 99.6% 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 |
P9WQE7
SwissProt · reviewed
· Evidence at protein level
|
|---|---|
| UniProt name | Phenolphthiocerol/phthiocerol polyketide synthase subunit A |
| EC (curated) |
EC 2.3.1.292
|
| Curated function | Part of the PpsABCDE complex involved in the biosynthesis of the lipid core common to phthiocerols and phenolphthiocerols by successive additions of malonyl-CoA or methylmalonyl-CoA extender units. PpsA can accept as substrate the activated forms of either icosanoyl (C20), docosanoyl (C22) or lignoceroyl (C24) groups from FadD26, or a (4-hydroxyphenyl)-C17 or (4-hydroxyphenyl)-C19 fatty acyl from FadD29. PpsA initiates the biosynthesis and extends its substrate using a malonyl-CoA extender unit. The PpsB and PpsC proteins add the second and third malonyl-CoA extender units. PpsD adds an (R)-me. |
Functional vocabulary (eggNOG-mapper, orthology transfer)
| COG category |
Q Secondary metabolites biosynthesis, transport and catabolism
|
|---|---|
| Preferred name | ppsA |
| eggNOG description | synthase |
| Orthologous group | COG1020 |
| EC number |
EC 2.3.1.261
|
| KEGG orthology |
K12430, K12440, K12441
|
| Gene Ontology (87) |
GO:0000036, GO:0003674, GO:0003824, GO:0004312, GO:0004315, GO:0004316, GO:0005488, GO:0005575, GO:0005618, GO:0005622, GO:0005623, GO:0005737 +75 more
|
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, 145 209 strains)
| pN/pS | 0.362 · purifying |
|---|---|
| Polymorphic sites (≥ 0.1% of strains) | 26 synonymous, 27 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) Actinomycetia
| M. canettii dN/dS (deep-divergence selection) |
0.2
· 14 consensus substitution(s) under purifying selection vs M. canettii (deep divergence; dN/dS=0.2) — a real, constrained gene predating the MTBC clonal expansion |
|---|---|
| Genus-wide presence (~53 non-MTBC Mycobacterium) |
present in 50/53 (94%) · mean identity 62.6%
· 4/4 closest MTBAP relatives conserved across the genus (present in 50/53 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 6/13 non-Mycobacterium reference genomes (down to Actinomycetia) · mean identity 39.3% detected across the class Actinomycetia (beyond Corynebacteriales) but not outside the phylum — an Actinobacteria-level ancient 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)
| DeJesus 2017 call | NE · non-essential |
|---|---|
| What the call means | non-essential |
| TA sites (Himar1) | 81 in the ORF — 0 in the essential state, 0 growth-defect, 78 non-essential, 3 growth-advantage. Saturation 0.914, mean read count 94.1486486486. A region of the protein devoid of TA sites is invisible to this assay: nothing can be inferred about it, in either direction. |
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.
Mutant phenotypes (conditional Tn-seq, MtbTnDB) in-vivo phenotype
| Condition | log2FC | q | Effect |
|---|---|---|---|
| altered fitness under amino acid starvation (stress) | -7.37 | 0.0 | required |
| altered fitness under acid stress in phosphate-citrate buffer (stress) | -4.83 | 0.0 | required |
| fitness in mouse infection (in vivo) | +4.42 | 0.0 | disruption advantageous |
| fitness in mouse infection, day 10 (in vivo) | -3.49 | 0.0 | required |
| fitness in mouse infection, immunodeficient (MHC-II-/-), day 45 (in vivo) | -3.42 | 0.0 | required |
| fitness in mouse infection (in vivo) | +3.11 | 0.0 | disruption advantageous |
| fitness in mouse infection (in vivo) | +2.77 | 0.0 | disruption advantageous |
| fitness in mouse infection (in vivo) | +2.73 | 0.0 | disruption advantageous |
| fitness in mouse infection (in vivo) | -2.70 | 0.0078 | required |
| fitness in mouse infection, day 10 (in vivo) | +2.65 | 0.0 | disruption advantageous |
| altered fitness under acid stress (stress) | -2.31 | 0.0 | required |
| fitness in mouse infection (in vivo) | +2.30 | 0.0 | disruption advantageous |
Conditional fitness of transposon-disruption mutants across 62 significant condition(s) (|log2FC|≥1, q≤0.05), from the standardized MtbTnDB compendium. A negative log2FC means the mutant is depleted — the gene contributes to fitness in that condition. An in-vivo defect for a "hypothetical" is strong evidence it matters for infection, even without a known molecular function. Disruption (Tn insertion), not a clean deletion; genetic-interaction screens excluded.
Proteomics (mass spectrometry) detected
| MS detection | detected in 15 of 16 independent MS datasets |
|---|---|
| Integrated abundance | 128.0 ppm · rank 1116/3519 (68.3th 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. Reproducible detection across several independent datasets (PaxDb) makes the existence claim robust; the integrated abundance places the protein in the proteome's dynamic range.
Physico-chemical properties (computed, ProtParam)
| Length | 1876 aa |
|---|---|
| Molecular weight | 198.9 kDa |
| Theoretical pI | 5.15 |
| GRAVY | -0.047 (hydrophilic) |
| Aliphatic index | 90.4 |
| Aromaticity | 0.057 |
| Instability index | 39.9 (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)
| Pfam | Accession | i-Evalue | Residues | Description |
|---|---|---|---|---|
ketoacyl-synt | PF00109.33 | 3.0e-98 | 102–351 | Beta-ketoacyl synthase, N-terminal domain |
Ketoacyl-synt_C | PF02801.29 | 2.7e-45 | 359–477 | Beta-ketoacyl synthase, C-terminal domain |
KAsynt_C_assoc | PF16197.12 | 6.5e-16 | 480–584 | Ketoacyl-synthetase C-terminal extension |
Acyl_transf_1 | PF00698.27 | 1.7e-124 | 632–950 | Acyl transferase domain |
PKS_DH_N | PF21089.4 | 6.2e-08 | 995–1079 | Polyketide synthase dehydratase domain |
KR | PF08659.17 | 2.4e-60 | 1491–1683 | KR domain |
PP-binding | PF00550.32 | 1.1e-16 | 1767–1832 | Phosphopantetheine attachment site |
Structural search (AlphaFold DB model, Foldseek vs PDB — genome-wide) pLDDT 82.9
| PDB hit | prob | TM-score | E-value | Description |
|---|---|---|---|---|
6c9u-assembly1_A |
1.00 | 0.82 | 1.2e-79 sig | 6c9u-assembly1_A Crystal structure of [KS3][AT3] didomain from module 3 of 6-deoxyerthronolide B synthase in complex with antibody fragment (Fab) |
8tko-assembly1_B |
1.00 | 0.81 | 9.1e-75 sig | 8tko-assembly1_B KS-AT core of 6-deoxyerythronolide B synthase (DEBS) Module 3 crosslinked with its translocation ACP partner of Module 2 |
5bp1-assembly1_A |
1.00 | 0.74 | 2.4e-75 sig | 5bp1-assembly1_A Condensing di-domain (KS-AT) of a mycocerosic acid synthase-like (MAS-like) PKS |
4mz0-assembly1_B |
1.00 | 0.78 | 5.4e-71 sig | 4mz0-assembly1_B Structure of a ketosynthase-acyltransferase di-domain from module CurL of the curacin A polyketide synthase |
7m7i-assembly1_B |
1.00 | 0.75 | 1.9e-67 sig | 7m7i-assembly1_B 6-Deoxyerythronolide B synthase (DEBS) module 1 in complex with antibody fragment 1B2 (TE-free) |
Foldseek search of the AlphaFold DB model (mean pLDDT 82.9, 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) operon of 10
| Upstream (5' on genome) | fadD26 (+ strand, -4 bp gap) |
|---|---|
| Downstream (3' on genome) | ppsB (+ strand, -4 bp gap) |
| Predicted operon |
fadD26 · ppsA · ppsB · ppsC · ppsD · ppsE · drrA · drrB · drrC · papA5
|
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).
Transcriptional regulation (signed TRN: ChIP-seq + TFOE)
| Regulated by (7 TF) |
whiB5 (activates) · Rv0023 (represses) · Rv0767c (activates) · trcR (activates) · Rv1049 (activates) · Rv1816 (represses) · Rv2034 (activates)
|
|---|
Regulatory edges from the ISB signed transcriptional regulatory network (TF ChIP-seq binding, Minch 2015 + TF-overexpression response, Rustad 2014). An edge is regulatory evidence (binding and/or expression change), not necessarily direct. For a "hypothetical", membership in a known regulon (e.g. DosR dormancy, PhoP virulence) is a strong physiological-context lead.
Functional interaction network (STRING v12, guilt-by-association)
Explore full network →Node colour = verdict, dashed = hypothetical; 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: fas (fatty acid synthase), high confidence from genomic context alone (score 1000 excluding text-mining).
| Partner | Product | Score | No text-mining | Channels (≥400) |
|---|---|---|---|---|
Rv2524c fas exp |
fatty acid synthase | 999 | 1000 ctx | neighborhood:511 coexpression:777 experimental:994 database:549 textmining:519 |
Rv2932 ppsB exp |
phthiocerol synthesis polyketide synthase type I PpsB | 997 | 996 ctx | neighborhood:800 coexpression:802 database:900 |
Rv2930 fadD26 exp |
fatty-acid--CoA ligase FadD26 | 998 | 994 ctx | neighborhood:801 coexpression:825 database:650 textmining:814 |
Rv2933 ppsC exp |
phthiocerol synthesis polyketide synthase type I PpsC | 994 | 992 ctx | neighborhood:813 experimental:414 database:900 |
Rv2935 ppsE exp |
phthiocerol synthesis polyketide synthase type I PpsE | 991 | 989 ctx | neighborhood:798 database:900 |
Rv2934 ppsD exp |
phthiocerol synthesis polyketide synthase type I PpsD | 983 | 981 ctx | neighborhood:778 database:900 |
Rv2383c mbtB exp |
phenyloxazoline synthase | 990 | 979 ctx | neighborhood:544 coexpression:877 experimental:473 textmining:591 |
Rv2243 fabD exp |
malonyl CoA-acyl carrier protein transacylase | 964 | 961 | coexpression:604 experimental:787 database:549 |
Rv0101 nrp exp |
peptide synthetase Nrp | 964 | 950 ctx | cooccurence:562 coexpression:767 experimental:473 |
Rv2928 tesA exp |
thioesterase TesA | 934 | 907 ctx | cooccurence:705 database:500 |
Rv2380c mbtE exp |
peptide synthetase | 884 | 873 ctx | cooccurence:557 coexpression:446 experimental:473 |
Rv2950c fadD29 exp |
long-chain-fatty-acid--AMP ligase FadD29 | 875 | 861 | database:650 |
Rv3147 nuoC exp |
NADH-quinone oxidoreductase subunit C | 862 | 857 | coexpression:427 experimental:472 database:564 |
Rv1181 pks4 exp |
polyketide beta-ketoacyl synthase | 884 | 852 | database:720 |
Rv3153 nuoI exp |
NADH-quinone oxidoreductase subunit I | 857 | 851 | coexpression:402 experimental:473 database:564 |
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 exp badge marks an experimentally-supported partner (measured interaction, experimental/database channel ≥400) as opposed to a purely predicted one — but note that the M. tuberculosis experimental interactome is dominated by a noisy bacterial-two-hybrid screen, so a strong measured link that contradicts the operon/localisation context is likely a false positive. 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.
Evidence
- Legacy H37Rv annotation: phthiocerol synthesis polyketide synthase type I PpsA
- MTBC0 PGAP product: phthiocerol type I polyketide synthase PpsA
- Pfam (hmmscan --cut_ga): ketoacyl-synt PF00109.33 (E=3e-98), Ketoacyl-synt_C PF02801.29 (E=3e-45), KAsynt_C_assoc PF16197.12 (E=7e-16), Acyl_transf_1 PF00698.27 (E=2e-124), PKS_DH_N PF21089.4 (E=6e-08), KR PF08659.17 (E=2e-60), PP-binding PF00550.32 (E=1e-16)
- (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_217447.1)
- Domains: Pfam-A via hmmscan --cut_ga — ketoacyl-synt (PF00109.33), Ketoacyl-synt_C (PF02801.29), KAsynt_C_assoc (PF16197.12), Acyl_transf_1 (PF00698.27), PKS_DH_N (PF21089.4), KR (PF08659.17), PP-binding (PF00550.32)
- 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
COG1020 - Curated reference: UniProt P9WQE7 (SwissProt, reviewed; Evidence at protein level)
- Intra-MTBC selection: pN/pS and disruption from SPDI variants of 145 209 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 82.9)
- Interaction network: STRING v12.0 (Szklarczyk et al. 2023,
doi:10.1093/nar/gkac1000), taxon 83332, CC-BY 4.0 —
234 functional partner(s); context anchor
fas - Essentiality: genome-wide transposon mutagenesis in H37Rv — DeJesus et al. 2017 (mBio, doi:10.1128/mBio.02133-16, CC BY)
- 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
- Genomic context / operon: H37Rv annotation; operon predicted by co-directional intergenic distance (Salgado et al. 2000, doi:10.1073/pnas.030539397)
- Transcriptional regulation: ISB signed TRN — TF ChIP-seq (Minch et al. 2015, doi:10.1038/ncomms6829) + TF overexpression (Rustad et al. 2014, doi:10.1186/gb-2014-15-11-502)
- Mutant phenotypes: standardized Tn-seq compendium MtbTnDB (Jinich et al. 2025, doi:10.1111/mmi.15370), aggregating many primary Tn-seq studies across conditions
- Physico-chemical properties: ExPASy ProtParam method via Biopython (Gasteiger et al. 2005), computed from the MTBC0 sequence
- Primary literature: none located yet; annotation rests on the domain/homology sources above.
Ancestral MTBC0 protein sequence
>mtbc0_003114|Rv2931|ppsA MTGSISGEADLRHWLIDYLVTNIGCTPDEVDPDLSLADLGVSSRDAVVLSGELSELLGRTVSPIDFWEHPTINALAAYLAAPEPSPDSDAAVKRGARNSLDEPIAVVGMGCRFPGGISCPEALWDFLCERRSSISQVPPQRWQPFEGGPPEVAAALARTTRWGSFLPDIDAFDAEFFEISPSEADKMDPQQRLLLEVAWEALEHAGIPPGTLRRSATGVFAGACLSEYGAMASADLSQVDGWSNSGGAMSIIANRLSYFLDLRGPSVAVDTACSSSLVAIHLACQSLRTQDCHLAIAAGVNLLLSPAVFRGFDQVGALSPTGQCRAFDATADGFVRGEGAGVVVLKRLTDAQRDGDRVLAVICGSAVNQDGRSNGLMAPNPAAQMAVLRAAYTNAGMQPSEVDYVEAHGTGTLLGDPIEARALGTVLGRGRPEDSPLLIGSVKTNLGHTEAAAGIAGFIKTVLAVQHGQIPPNQHFETANPHIPFTDLRMKVVDTQTEWPATGHPRRAGVSSFGFGGTNAHVVIEQGQEVRPAPGQGLSPAVSTLVVAGKTMQRVSATAGMLADWMEGPGADVALADVAHTLNHHRSRQPKFGTVVARDRTQAIAGLRALAAGQHAPGVVNPAEGSPGPGTVFVYSGRGSQWAGMGRQLLADEPAFAAAVAELEPVFVEQAGFSLHDVLANGEELVGIEQIQLGLIGMQLALTELWCSYGVRPDLVIGHSMGEVAAAVVAGALTPAEGLRVTATRSRLMAPLSGQGGMALLELDAPTTEALIADFPQVTLGIYNSPRQTVIAGPTEQIDELITRVRARDRFASRVNIEVAPHNPAMDALQPAMRSELADLTPRTPTIGIISTTYADLHTQPVFDAEHWATNMRNPVHFQQAIASAGSGADGAYHTFIEISAHPLLTQAIIDTLHSAQPGARYTSLGTLQRDTDDVVTFRTNLNKAHTIHPPHTPHPPEPHPPIPTTPWQHTRHWITTKYPAGSVGSAPRAGTLLGQHTTVATVSASPPSHLWQARLAPDAKPYQGGHRFHQVEVVPASVVLHTILSAATELGYSALSEVRFEQPIFADRPRLIQVVADNRAISLASSPAAGTPSDRWTRHVTAQLSSSPSDSASSLNEHHRANGQPPERAHRDLIPDLAELLAMRGIDGLPFSWTVASWTQHSSNLTVAIDLPEALPEGSTGPLLDAAVHLAALSDVADSRLYVPASIEQISLGDVVTGPRSSVTLNRTAHDDDGITVDVTVAAHGEVPSLSMRSLRYRALDFGLDVGRAQPPASTGPVEAYCDATNFVHTIDWQPQTVPDATHPGAEQVTHPGPVAIIGDDGAALCETLEGAGYQPAVMSDGVSQARYVVYVADSDPAGADETDVDFAVRICTEITGLVRTLAERDADKPAALWILTRGVHESVAPSALRQSFLWGLAGVIAAEHPELWGGLVDLAINDDLGEFGPALAELLAKPSKSILVRRDGVVLAPALAPVRGEPARKSLQCRPDAAYLITGGLGALGLLMADWLADRGAHRLVLTGRTPLPPRRDWQLDTLDTELRRRIDAIRALEMRGVTVEAVAADVGCREDVQALLAARDRDGAAPIRGIIHAAGITNDQLVTSMTGDAVRQVMWPKIGGSQVLHDAFPPGSVDFFYLTASAAGIFGIPGQGSYAAANSYLDALARARRQQGCHTMSLDWVAWRGLGLAADAQLVSEELARMGSRDITPSEAFTAWEFVDGYDVAQAVVVPMPAPAGADGSGANAYLLPARNWSVMAATEVRSELEQGLRRIIAAELRVPEKELDTDRPFAELGLNSLMAMAIRREAEQFVGIELSATMLFNHPTVKSLASYLAKRVAPHDVSQDNQISALSSSAGSVLDSLFDRIESAPPEAERSV
Spot an error? Suggest an improvement
Found a mistake, a missing reference, or have a better functional hypothesis for ppsA? Email the maintainer — the message is pre-filled with this gene's details.