mitochondrial complex V (ATP synthase) deficiency, nuclear type 3

disease
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Also known as ATP5F1E mitochondrial proton-transporting ATP synthase complex deficiencyMC5DN3mitochondrial proton-transporting ATP synthase complex deficiency caused by mutation in ATP5F1E

Summary

mitochondrial complex V (ATP synthase) deficiency, nuclear type 3 (MONDO:0013547) is a disease caused by ATP5F1E (GenCC Strong), with 1 cohort gene.

At a glance

  • Causal gene: ATP5F1E (GenCC Strong)
  • Cohort genes: 1
  • ClinVar variants: 2

Clinical features

No curated clinical features (Orphanet) for this disease.

Identifiers

Disease identifiers

FieldValue
Canonical namemitochondrial complex V (ATP synthase) deficiency, nuclear type 3
Mondo IDMONDO:0013547
OMIM614053
DOIDDOID:0060332
UMLSC3279708
MedGen481338
GARD0018666
Is cancer (heuristic)no

Also known as: ATP5F1E mitochondrial proton-transporting ATP synthase complex deficiency · MC5DN3 · mitochondrial complex V (ATP synthase) deficiency, nuclear type 3 · mitochondrial proton-transporting ATP synthase complex deficiency caused by mutation in ATP5F1E

Data availability: 2 ClinVar variants · 3 GenCC gene-disease records.

Disease family

Classification path: disease › human disease › disease by developmental or physiological process › metabolic diseasedevelopmental anomaly of metabolic origininborn mitochondrial metabolism disordermitochondrial oxidative phosphorylation disordermitochondrial respiratory chain complex deficiencymitochondrial complex V (ATP synthase) deficiency, nuclear type 3

Related subtypes (8): mitochondrial complex V (ATP synthase) deficiency, nuclear type 1, mitochondrial complex V (ATP synthase) deficiency, nuclear type 2, mitochondrial complex V (ATP synthase) deficiency, nuclear type 4B, mitochondrial complex III deficiency, mitochondrial complex V (ATP synthase) deficiency, nuclear type 5, mitochondrial complex IV deficiency, nuclear-type, mitochondrial complex I deficiency, SDHC-related Mitochondrial Disease

Genetics & variants

GWAS landscape

No GWAS associations recorded — common-variant (GWAS) studies don’t cover this disease (typical for Mendelian / rare diseases). See the curated gene cohort and Mendelian overlap below.

Variant details and genetic-evidence tiers

ClinVar germline variants

2 retrieved; paginated sample, class counts are floors:

1 pathogenic, 1 uncertain significance

ClinVarVariant (HGVS)GeneClassificationReview
30551NM_006886.4(ATP5F1E):c.35A>G (p.Tyr12Cys)ATP5F1EPathogenicno assertion criteria provided
3065807NM_006886.4(ATP5F1E):c.151G>T (p.Glu51Ter)ATP5F1EUncertain significancecriteria provided, single submitter

Genes & proteins

Mendelian disease overlap and somatic drivers

GenCC: 4 · Orphanet: 1 · OMIM-shared: 0 · Dual-evidence (GWAS+Mendelian): 0

GenCC gene–disease validity (cohort genes)

the Disease column is the GenCC-asserted condition — a cohort gene’s strongest validity may be for a related predisposition syndrome.

GeneClassificationInheritanceDiseaseRecords
ATP5F1EStrongAutosomal recessivemitochondrial complex V (ATP synthase) deficiency, nuclear type 34

Orphanet rare-disease linkage (cohort genes)

GeneOrphanet IDRare disease
ATP5F1EOrphanet:254913Isolated ATP synthase deficiency

Cohort genes → proteins

1 cohort genes, 1 distinct canonical proteins.

Evidence partition

SubsetGenes
multi_evidence1

Cohort genes (full)

SymbolHGNCEnsemblUniProtNameEvidence
ATP5F1EHGNC:838ENSG00000124172P56381ATP synthase F(1) complex subunit epsilon, mitochondrialgencc,clinvar

Cohort function summary

Lead sentence per gene, UniProt-curated.

SymbolProtein nameFunction (lead sentence)
ATP5F1EATP synthase F(1) complex subunit epsilon, mitochondrialSubunit epsilon, of the mitochondrial membrane ATP synthase complex (F(1)F(0) ATP synthase or Complex V) that produces ATP from ADP in the presence of a proton gradient across the membrane which is generated by electron transport complexes…

Protein-family classification

Druggable: 0 · Difficult: 0 · Unknown: 1 · Druggable fraction: 0.0

Family distribution

Cohort families vs a genome-wide background (hypergeometric, BH-FDR; fold = observed/expected). Counts kept; sorted by enrichment, so the catch-all Other/Unknown bucket no longer leads.

FamilyGenesFoldFDR
Other/Unknown11.8×0.558

Per-gene assignment

SymbolFamilyDruggable?ECInterPro (top 3)
ATP5F1EOther/UnknownnoATP_synth_F1_esu_mt, ATP_synth_F1_esu_sf_mt

Expression context

Cohort genes with no expression data: 0.

1 cohort gene are a single-cell marker in ≥1 SCXA experiment.

Breadth distribution (Bgee present_calls)

BucketGenes
narrow (1-5 tissues)0
moderate (6-20)0
broad (>20)1
unknown0

Top tissues across cohort

TissueCohort genes
cranial nerve II1
renal medulla1
substantia nigra pars reticulata1

Per-gene tissue summary (top 30)

SymbolBgee breadthFANTOM5 breadthSCXATop tissues
ATP5F1E296ubiquitousmarkerrenal medulla, cranial nerve II, substantia nigra pars reticulata

Protein interactions among cohort

Intra-cohort edges: 0.

Hub genes (top 10 by interactor count)

SymbolInteractor count
ATP5F1E1,742

Structural data

PDB: 1 · AlphaFold-only: 0 · No structure: 0

Cohort genes with PDB structures (top 30)

SymbolUniProtPDB entries
ATP5F1EP5638110

Function

Pathway analysis

Distinct Reactome pathways touched by cohort: 6. Enrichment computed across 1 evidence-associated genes (1 with Reactome annotation).

Pathways by enrichment

Over-representation of cohort genes vs the genome-wide background (hypergeometric test, Benjamini-Hochberg FDR; fold = observed/expected over 1 annotated cohort genes). Counts and members are kept as ground-truth; sorted by enrichment.

PathwayCohort genesFoldFDRSample cohort genes
Formation of ATP by chemiosmotic coupling1571.0×0.009ATP5F1E
Cristae formation1346.1×0.009ATP5F1E
Mitochondrial biogenesis1167.9×0.012ATP5F1E
Aerobic respiration and respiratory electron transport188.5×0.017ATP5F1E
Organelle biogenesis and maintenance166.0×0.018ATP5F1E
Metabolism111.6×0.086ATP5F1E

GO biological processes by enrichment

Over-representation of cohort genes vs the genome-wide background (hypergeometric test, Benjamini-Hochberg FDR; fold = observed/expected over 1 annotated cohort genes). Counts and members are kept as ground-truth; sorted by enrichment.

GO termCohort genesFoldFDRSample cohort genes
proton motive force-driven ATP synthesis1802.5×0.002ATP5F1E
proton motive force-driven mitochondrial ATP synthesis1263.3×0.004ATP5F1E

Therapeutics

Drug target analysis

Approved (phase 4): 0 · Phase ≥3: 0 · Phased (≥1): 0 · Undrugged: 1

Druggability breadth: 0 of 1 evidence-associated genes (0%) have a ChEMBL target (buckets above are over the deeply-mined display cohort).

Top cohort targets by molecule count

SymbolMoleculesMax phase
ATP5F1E00

Bioactivity and enzyme data

Enzyme cohort genes (≥1 EC): 0.

Pharmacogenomics

Cohort genes with a PharmGKB record: 1; with CPIC/DPWG dosing guidelines: 0.

No cohort gene has a CPIC/DPWG genotype-guided dosing guideline (PharmGKB).

Chemical tractability of cohort targets

0 approved/phased compounds have measured bioactivity against a cohort gene (and aren’t yet in disease-level trials). This is a research / tractability signal, NOT a therapeutic recommendation — a bioactivity row often reflects off-target or screening binding (e.g. promiscuous kinase inhibitors against a cohort kinase), implying no disease mechanism.

Druggability pyramid

Cohort genes binned by druggability tier (high → low):

TierDefinitionGenesSymbols
AApproved (phase 4 drug)0
BPhased (≥1) drug, not yet approved0
CDruggable family + PDB, no drug0
DDruggable family + AlphaFold only, no drug0
EDifficult family or no structure, no drug1ATP5F1E

Undrugged target profiles

1 cohort genes are undrugged. Ranked by ‘starting-point quality’ (assay depth + drugged-partner adjacency).

SymbolChEMBL assaysDrugged partners (top 3)
ATP5F1E0

Clinical trials & evidence

Clinical trials

Clinical trials: 0.