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| Microcephaly v1.258 | FILIP1 | Zornitza Stark Phenotypes for gene: FILIP1 were changed from Arthrogryposis multiplex congenita MONDO:0015168, FILIP1 related to Neuromuscular disorder, congenital, with dysmorphic facies, MIM# 620775 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.257 | FILIP1 | Zornitza Stark reviewed gene: FILIP1: Rating: GREEN; Mode of pathogenicity: None; Publications: ; Phenotypes: Neuromuscular disorder, congenital, with dysmorphic facies, MIM# 620775; Mode of inheritance: BIALLELIC, autosomal or pseudoautosomal | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.234 | COG3 |
Daniel Flanagan gene: COG3 was added gene: COG3 was added to Microcephaly. Sources: Expert list Mode of inheritance for gene: COG3 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: COG3 were set to PMID: 37711075 Phenotypes for gene: COG3 were set to Neurodevelopmental disorder (MONDO#0700092), COG3-related Review for gene: COG3 was set to AMBER Added comment: Two COG3 homozygous missense variants in four individuals from two unrelated consanguineous families. Clinical phenotypes of affected individuals include global developmental delay, severe intellectual disability, microcephaly, epilepsy, facial dysmorphism, and variable neurological findings. Sources: Expert list |
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| Microcephaly v1.213 | PIP5K1C |
Chirag Patel gene: PIP5K1C was added gene: PIP5K1C was added to Microcephaly. Sources: Other Mode of inheritance for gene: PIP5K1C was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Phenotypes for gene: PIP5K1C were set to Neurodevelopmental disorder and microcephaly Review for gene: PIP5K1C was set to GREEN gene: PIP5K1C was marked as current diagnostic Added comment: ESHG 2023: 9 unrelated patients with de novo missense variants in PIP5K1C (3 x recurrent variants). Presentation with DD/ID (mod-profound), microcephaly, seizures, visual impairment, and dysmorphism. PIP5K1C is one of the phosphoinositolides, which control membrane composition of organelles and varying cellular processes. Patient fibroblasts showed increased PI(4,5)P2 levels, altered PI(4,5)P2 composition of early endosomes, and impaired endocytosis trafficking. Drosophila models showed microcephaly and ocular phenotype. Sources: Other |
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| Microcephaly v1.212 | DCAF15 |
Chirag Patel gene: DCAF15 was added gene: DCAF15 was added to Microcephaly. Sources: Other Mode of inheritance for gene: DCAF15 was set to BIALLELIC, autosomal or pseudoautosomal Phenotypes for gene: DCAF15 were set to Cornelia de Lange syndrome Review for gene: DCAF15 was set to AMBER Added comment: ESHG 2023: 3 unrelated cases with CdLS (1 x TOP with MCA, 1 x death @20mths, 1 x living child) Features suggestive of CdLS - DD, microcephaly, CHD, dysmorphism, visual/hearing impairment. WES identified recurrent de novo variant (p.Ser470Phe) in DCAF15 gene. This mediates ubiquitination and degradation of target proteins, and interacts with cohesin complex members (SMC1/SMC3). Protein analysis from individuals showed increased accumulation of ubiquitination-modified proteins and SM3 (GOF mechanism). EpiSign analysis showed same DNA methylation pattern as other CdLS cases/genes. Zebrafish model showed reduced body length, reduced head size, reduced oligodendrocytes, heart defect, aberrant motor neurons, and abnormal response to visual/auditory stimuli. Sources: Other |
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| Microcephaly v1.212 | DCAF15 |
Chirag Patel gene: DCAF15 was added gene: DCAF15 was added to Microcephaly. Sources: Other Mode of inheritance for gene: DCAF15 was set to BIALLELIC, autosomal or pseudoautosomal Phenotypes for gene: DCAF15 were set to Cornelia de Lange syndrome Review for gene: DCAF15 was set to AMBER Added comment: ESHG 2023: 3 unrelated cases with CdLS (1 x TOP with MCA, 1 x death @20mths, 1 x living child) Features suggestive of CdLS - DD, microcephaly, CHD, dysmorphism, visual/hearing impairment. WES identified recurrent de novo variant (p.Ser470Phe) in DCAF15 gene. This mediates ubiquitination and degradation of target proteins, and interacts with cohesin complex members (SMC1/SMC3). Protein analysis from individuals showed increased accumulation of ubiquitination-modified proteins and SM3 (GOF mechanism). EpiSign analysis showed same DNA methylation pattern as other CdLS cases/genes. Zebrafish model showed reduced body length, reduced head size, reduced oligodendrocytes, heart defect, aberrant motor neurons, and abnormal response to visual/auditory stimuli. Sources: Other |
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| Microcephaly v1.205 | TPR | Zornitza Stark Phenotypes for gene: TPR were changed from Multiple congenital anomalies/dysmorphic syndrome, MONDO:0019042, TPR-related to Intellectual developmental disorder, autosomal recessive 79, MIM# 620393 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.195 | FILIP1 |
Paul De Fazio gene: FILIP1 was added gene: FILIP1 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: FILIP1 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: FILIP1 were set to 36943452 Phenotypes for gene: FILIP1 were set to Arthrogryposis multiplex congenita MONDO:0015168 Penetrance for gene: FILIP1 were set to unknown Review for gene: FILIP1 was set to GREEN gene: FILIP1 was marked as current diagnostic Added comment: 3 families, all consanguineous, reported with 3 different homozygous loss of function variants (2x NMD-predicted nonsense, 1x intragenic deletion of exons 3-6 of 6). In one family, the variant segregated in 3 affected siblings. Phenotypes consist of congenital contractures affecting shoulder, elbow, hand, hip, knee and foot as well as scoliosis, reduced palmar and plantar skin folds, microcephaly (-1.5 to -4 SD), and facial dysmorphism. Sources: Literature |
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| Microcephaly v1.194 | CRIPT | Suliman Khan changed review comment from: PMID: 36630262 reported a patient with profound prenatal/postnatal growth restriction, developmental delay, dysmorphic facial features, and skin lesions along with the findings of bicytopenia and extensive retinal pigmentation defect. A novel truncating homozygous variant c.7_8delTG; p.(Cys3Argfs*4) was detected in CRIPT gene.; to: PMID: 36630262 reported a patient with profound prenatal/postnatal growth restriction, developmental delay, dysmorphic facial features, and skin lesions along with the findings of bicytopenia and extensive retinal pigmentation defect. A novel truncating homozygous variant was detected in CRIPT gene. | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.188 | ZNF668 | Zornitza Stark Phenotypes for gene: ZNF668 were changed from DNA damage repair defect; microcephaly; growth deficiency; severe global developmental delay; brain malformation; facial dysmorphism to Neurodevelopmental disorder with poor growth, large ears, and dysmorphic facies, MIM# 620194 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.187 | SMC5 | Zornitza Stark Phenotypes for gene: SMC5 were changed from Multiple congenital anomalies/dysmorphic syndrome, MONDO:0019042, SLF2-related; Atelis syndrome; microcephaly; short stature; ID to Atelis syndrome 2, MIM# 620185 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.186 | SLF2 | Zornitza Stark Phenotypes for gene: SLF2 were changed from Multiple congenital anomalies/dysmorphic syndrome, MONDO:0019042, SLF2-related; Atelis syndrome; microcephaly; short stature; ID to Atelis syndrome 1, MIM# 620184 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.173 | SETD2 |
Zornitza Stark gene: SETD2 was added gene: SETD2 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: SETD2 was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: SETD2 were set to 32710489 Phenotypes for gene: SETD2 were set to Rabin-Pappas syndrome,MIM# 620155 Review for gene: SETD2 was set to GREEN Added comment: PMID 32710489: 12 unrelated patients, ranging from 1 month to 12 years of age, with a multisystemic neurodevelopmental disorder associated with a specific de novo heterozygous mutation in the SETD2 gene (R1740W). Key clinical features: severely impaired global development apparent from infancy, feeding difficulties with failure to thrive, small head circumference, and dysmorphic facial features. Affected individuals have impaired intellectual development and hypotonia; they do not achieve walking or meaningful speech. Other neurologic findings may include seizures, hearing loss, ophthalmologic defects, and brain imaging abnormalities. There is variable involvement of other organ systems, including skeletal, genitourinary, cardiac, and possibly endocrine. Sources: Literature |
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| Microcephaly v1.170 | TPR |
Zornitza Stark gene: TPR was added gene: TPR was added to Microcephaly. Sources: Literature Mode of inheritance for gene: TPR was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: TPR were set to 34494102 Phenotypes for gene: TPR were set to Multiple congenital anomalies/dysmorphic syndrome, MONDO:0019042, TPR-related Review for gene: TPR was set to RED Added comment: Two siblings harbouring variants c.6625C>T/ p.Arg2209Ter (identified in heterozygous state in both siblings and father) and c.2610 + 5G > A (identified in heterozygous state in both siblings and mother) were reported with ataxia, microcephaly and severe intellectual disability. Functional analyses in patient fibroblasts provide evidence that the variants affect TPR splicing, reduce steady-state TPR levels, abnormal nuclear pore composition and density, and altered global RNA distribution. Sources: Literature |
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| Microcephaly v1.168 | MTSS1 |
Zornitza Stark edited their review of gene: MTSS1: Added comment: Five individuals with the same heterozygous de novo variant in MTSS2 (NM_138383.2: c.2011C>T [p.Arg671Trp]) identified by exome sequencing. The individuals presented with global developmental delay, mild intellectual disability, ophthalmological anomalies, microcephaly or relative microcephaly, and shared mild facial dysmorphisms. Immunoblots of fibroblasts from two affected individuals revealed that the variant does not significantly alter MTSS2 levels. We modeled the variant in Drosophila and showed that the fly ortholog missing-in-metastasis (mim) was widely expressed in most neurons and a subset of glia of the CNS. Loss of mim led to a reduction in lifespan, impaired locomotor behavior, and reduced synaptic transmission in adult flies. Expression of the human MTSS2 reference cDNA rescued the mim loss-of-function (LoF) phenotypes, whereas the c.2011C>T variant had decreased rescue ability compared to the reference, suggesting it is a partial LoF allele. However, elevated expression of the variant, but not the reference MTSS2 cDNA, led to similar defects as observed by mim LoF, suggesting that the variant is toxic and may act as a dominant-negative allele when expressed in flies.; Changed rating: GREEN |
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| Microcephaly v1.167 | SMC5 |
Zornitza Stark gene: SMC5 was added gene: SMC5 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: SMC5 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: SMC5 were set to 36333305 Phenotypes for gene: SMC5 were set to Multiple congenital anomalies/dysmorphic syndrome, MONDO:0019042, SLF2-related; Atelis syndrome; microcephaly; short stature; ID Review for gene: SMC5 was set to GREEN Added comment: Four individuals from three families with a chromosome breakage disorder and bi-allelic variants in this gene. However, three of the individuals had the same homozygous missense variant. Evidence for functional impact of the variant was limited. However, zebrafish model recapitulated the phenotype and was not rescued by the introduction of this variant, arguing for functional effect. Borderline Amber/Green. Sources: Literature |
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| Microcephaly v1.166 | SLF2 | Zornitza Stark Phenotypes for gene: SLF2 were changed from Atelis syndrome; microcephaly; short stature; ID to Multiple congenital anomalies/dysmorphic syndrome, MONDO:0019042, SLF2-related; Atelis syndrome; microcephaly; short stature; ID | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.165 | SLF2 | Zornitza Stark edited their review of gene: SLF2: Changed phenotypes: Multiple congenital anomalies/dysmorphic syndrome, MONDO:0019042, SLF2-related, Atelis syndrome, microcephaly, short stature, ID | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.165 | SLF2 | Zornitza Stark edited their review of gene: SLF2: Changed phenotypes: Multiple congenital anomalies/dysmorphic syndrome, SLF2-related, Atelis syndrome, microcephaly, short stature, ID | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.163 | FRA10AC1 | Zornitza Stark Phenotypes for gene: FRA10AC1 were changed from Neurodevelopmental disorder, MONDO:0700092, FRA10AC1-related to Neurodevelopmental disorder with growth retardation, dysmorphic facies, and corpus callosum abnormalities, MIM# 620113 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.162 | FRA10AC1 | Zornitza Stark edited their review of gene: FRA10AC1: Changed phenotypes: Neurodevelopmental disorder with growth retardation, dysmorphic facies, and corpus callosum abnormalities, MIM# 620113 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.154 | KCNK3 |
Krithika Murali gene: KCNK3 was added gene: KCNK3 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: KCNK3 was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: KCNK3 were set to 36195757 Phenotypes for gene: KCNK3 were set to Neurodevelopmental disorder, MONDO:0700092, KCNK3-related; developmental delay with sleep apnoea (DDSA) Review for gene: KCNK3 was set to GREEN Added comment: PMID 36195757 Sörmann et al 2022 report 9 unrelated individuals with de novo heterozygous KCNK3 missense variants (21 weeks to 25 years old). All 8 living probands (3-25 years) had hypotonia, global developmental delay, central and/or obstructive sleep apnoea and feeding difficulties. 7/9 probands had additional anomalies including microcephaly (at least 3/9), arthrogryposis/flexion contractures/foot deformities (7/9), scoliosis, cleft palate (2/9), and ambiguous genitalia/undescended testes (5/6) and dysmorphism. IUGR reported in 3/9 probands and polyhdramnios in 2/9. KCNK3 encodes the TASK-1 K2P channel expressed throughout the central nervous system. All identified variants clustered near the X-gate and are involved in inter- or intra-subunit interaction likely to hold the X-gate closed. Individuals with variants located in the M2 transmembrane helix had a more severe phenotype than those with variants in the M4 helix. Functional studies support a gain of function disease mechanism with increased channel activation. TASK-1 K+ channel inhibitors (some in clinical use) have been raised as a possible therapeutic strategy. ---- Heterozygous LoF variants associated with a different disorder - primary pulmonary arterial hypertension Sources: Literature |
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| Microcephaly v1.141 | KIF15 |
Krithika Murali gene: KIF15 was added gene: KIF15 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: KIF15 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: KIF15 were set to 28150392 Phenotypes for gene: KIF15 were set to ?Braddock-Carey syndrome 2 - MIM#619981 Review for gene: KIF15 was set to AMBER Added comment: PMID 28150392 Sleiman et al 2017 report one individual with homozygous R501* variant (NMD-predicted) from a consanguineous family. The child had thrombocytopenia, PRS, microcephaly -3SD by age 6, dysmorphic facies, bilateral external auditory canal atresia and deafness, microphthalmia, clinodactyly, short stature. Variant absent from gnomAD. Parents confirmed to be carriers and unaffected siblings were carriers/homozygous wild-type. No other SNVs reported in ClinVar. Variant is absent from gnomAD. Authors note phenotypic similarities with Braddock-Carey syndrome (21q22 contiguous deletion also involving RUNX1). Sources: Literature |
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| Microcephaly v1.131 | AUTS2 |
Elena Savva gene: AUTS2 was added gene: AUTS2 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: AUTS2 was set to MONOALLELIC, autosomal or pseudoautosomal, imprinted status unknown Publications for gene: AUTS2 were set to PMID: 35802027; 34573342 Phenotypes for gene: AUTS2 were set to Intellectual developmental disorder, autosomal dominant 26 MIM#615834 Review for gene: AUTS2 was set to GREEN Added comment: PMID: 35802027 - human cerebral organoid model used to illustrate functionality of de novo missense variants. Describes rat model who lacked a microcephaly presentation. Proband has profound ID, microcephaly, epilepsy, cerebellar hypoplasia and dysmorphic features. PMID: 34573342 - microcephaly as a feature in 3/5 patients in an internal cohort. Review of the literature found 65% freq of microcephaly (34/52 patients) Sources: Literature |
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| Microcephaly v1.126 | BUB1 |
Paul De Fazio gene: BUB1 was added gene: BUB1 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: BUB1 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: BUB1 were set to 35044816; 19772675; 19117986; 23209306 Phenotypes for gene: BUB1 were set to Neurodevelopmental disorder, BUB1-related MONDO:0700092; Intellectual disability and microcephaly Review for gene: BUB1 was set to AMBER gene: BUB1 was marked as current diagnostic Added comment: 2 unrelated patients with ID, microcephaly, short stature, dysmorphic features reported with biallelic variants: P1 (3yo male): homozygous start-loss variant (2 hets and 0 hom in gnomAD). Functional testing showed a small amount of full-length protein was translated, and BUB1 recruitment to kinetochores was nearly undetectable. P2 (16yo female): compound heterozygous for a canonical splice variant (1 het and no hom in gnomAD) and an NMD-predicted frameshift variant (absent from gnomAD). The splice variant was shown to result in an in-frame deletion of 54 amino acids in the kinase domain. P2 cells have reduced protein levels but essentially no kinase activity. BUB1 patient cells have impaired mitotic fidelity. Homozygous Bub1 disruption in mice is embryonic lethal (PMID:19772675). A hypomorphic mouse is viable with increased tumourigenesis with ageing and aneuploidy (PMID:19117986). A kinase-dead mouse does not show increased tumourigenesis but does have a high frequency of aneuploid cells (PMID:23209306) Sources: Literature |
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| Microcephaly v1.120 | DROSHA |
Lucy Spencer gene: DROSHA was added gene: DROSHA was added to Microcephaly. Sources: Literature Mode of inheritance for gene: DROSHA was set to MONOALLELIC, autosomal or pseudoautosomal, imprinted status unknown Publications for gene: DROSHA were set to 35405010 Phenotypes for gene: DROSHA were set to Neurodevelopmental disorder (MONDO#0700092), DROSHA-related Review for gene: DROSHA was set to AMBER Added comment: 2 individuals with profound intellectual disability, epilepsy, white matter atrophy, microcephaly, and dysmorphic features, who carry damaging de novo heterozygous variants in DROSHA. Both variants are missense, absent from gnomad. Both individuals noted to have Rett-like features. Functional studies in patient fibroblasts showed one of the missense altered the expression of mature miRNA. Fruit fly models with homozygous LOF variants die during larval stages. introduction of the missense seen in the patients was able to partially rescue this phenotype suggesting LOF is not the mechanism. Sources: Literature |
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| Microcephaly v1.109 | HIST1H4E |
Paul De Fazio gene: HIST1H4E was added gene: HIST1H4E was added to Microcephaly. Sources: Literature Mode of inheritance for gene: HIST1H4E was set to MONOALLELIC, autosomal or pseudoautosomal, imprinted status unknown Publications for gene: HIST1H4E were set to 35202563 Phenotypes for gene: HIST1H4E were set to Neurodevelopmental disorder, HIST1H4E-related MONDO:0700092 Review for gene: HIST1H4E was set to GREEN gene: HIST1H4E was marked as current diagnostic Added comment: HGNC recognised gene name: H4C5 17 patients identified with de novo missense variants affecting Lys31, Pro32, Arg35, Leu37, Arg40 (recurrent), Arg45 (recurrent), Tyr98 (recurrent). All individuals had ID/dev delay. Additional phenotypes in some but not all individuals included epilepsy, hypotonia, facial dysmorphism. Most had reduced birth length, OFC, weight (-1 to -3SD). OFC at most recent exam (age range 11 months to 18 years) ranged from -0.15SD to < -4SD. 10/17 had OFC < -3SD. A zebrafish model has developmental defects. Sources: Literature |
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| Microcephaly v1.104 | EHMT1 |
Elena Savva gene: EHMT1 was added gene: EHMT1 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: EHMT1 was set to MONOALLELIC, autosomal or pseudoautosomal, imprinted status unknown Publications for gene: EHMT1 were set to PMID: 29228531; 28361100; 21910222; 19264732 Phenotypes for gene: EHMT1 were set to Kleefstra syndrome 1 MIM#610253 Review for gene: EHMT1 was set to AMBER Added comment: OMIM/PMID: 29228531/PMID: 21910222 - microcephaly describes as a feature of kleefstra syndrome PMID: 28361100 - 18-year-old woman with intellectual disability, severely limited speech, hypotonia, microcephaly, and facial dysmorphisms, de novo single-base frameshift deletion PMID: 19264732 - Microcephaly was noted in 6/15 patients with a deletion and 2/6 cases with a "mutation and was already present at birth" unclear what mutations these are Common cause of disease is a microdeletion of 9q34.3, in which microcephaly is commonly reported. Amber due to inconsistent reports in SNV cases. Sources: Literature |
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| Microcephaly v1.104 | THUMPD1 | Zornitza Stark Phenotypes for gene: THUMPD1 were changed from Syndromic form of intellectual disability associated with developmental delay, behavioral abnormalities, hearing loss and facial dysmorphism, AR to Syndromic disease, MONDO:0002254, THUMPD1-related | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.102 | THUMPD1 |
Chern Lim changed review comment from: Broly, M. et al. (2022), AJHG: - 13 individuals from 8 families, loss of function variants (PTVs, one missense, one single AA del). - Common phenotypic findings included global developmental delay, speech delay, moderate to severe intellectual deficiency, behavioral abnormalities such as angry outbursts, facial dysmorphism and ophthalmological abnormalities. Sources: Other; to: Broly, M. et al. (2022), AJHG: - 13 individuals from 8 families, biallelic loss of function variants (PTVs, one missense, one single AA del). - Common phenotypic findings included global developmental delay, speech delay, moderate to severe intellectual deficiency, behavioral abnormalities such as angry outbursts, facial dysmorphism and ophthalmological abnormalities. Sources: Other |
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| Microcephaly v1.102 | THUMPD1 |
Chern Lim changed review comment from: Broly, M. et al. (2022) manuscript accepted in AJHG: - 13 individuals from 8 families, loss of function variants (PTVs, one missense, one single AA del). - Common phenotypic findings included global developmental delay, speech delay, moderate to severe intellectual deficiency, behavioral abnormalities such as angry outbursts, facial dysmorphism and ophthalmological abnormalities. Sources: Other; to: Broly, M. et al. (2022), AJHG: - 13 individuals from 8 families, loss of function variants (PTVs, one missense, one single AA del). - Common phenotypic findings included global developmental delay, speech delay, moderate to severe intellectual deficiency, behavioral abnormalities such as angry outbursts, facial dysmorphism and ophthalmological abnormalities. Sources: Other |
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| Microcephaly v1.102 | THUMPD1 |
Chern Lim gene: THUMPD1 was added gene: THUMPD1 was added to Microcephaly. Sources: Other Mode of inheritance for gene: THUMPD1 was set to BIALLELIC, autosomal or pseudoautosomal Phenotypes for gene: THUMPD1 were set to Syndromic form of intellectual disability associated with developmental delay, behavioral abnormalities, hearing loss and facial dysmorphism, AR Review for gene: THUMPD1 was set to GREEN gene: THUMPD1 was marked as current diagnostic Added comment: Broly, M. et al. (2022) manuscript accepted in AJHG: - 13 individuals from 8 families, loss of function variants (PTVs, one missense, one single AA del). - Common phenotypic findings included global developmental delay, speech delay, moderate to severe intellectual deficiency, behavioral abnormalities such as angry outbursts, facial dysmorphism and ophthalmological abnormalities. Sources: Other |
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| Microcephaly v1.98 | RBL2 |
Elena Savva gene: RBL2 was added gene: RBL2 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: RBL2 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: RBL2 were set to PMID: 33980986; 32105419; 9806916 Phenotypes for gene: RBL2 were set to Severe motor and cognitive impairment; Intellectual disability; Brunet-Wagner neurodevelopmental syndrome MIM#619690 Review for gene: RBL2 was set to AMBER Added comment: PMID: 33980986: 2 unrelated patients (3 total) with infantile hypotonia, severe developmental delay and microcephaly. Functional studies on patient fibroblasts supports loss of protein and mRNA expression. Patients were homozygous for a PTC, and a CNV (exon 4-5 del) PMID: 32105419: affecting siblings with severe intellectual disability, stereotypies and dysmorphic features. Chet PTC/CNV (exon 13-17 del). 3 unrelated families - 2/3 corpus callosum hypoplasia/cerebral atrophy, 2/3 epilepsy, 2/3 microcephaly PMID: 9806916: mouse model in support Sources: Literature |
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| Microcephaly v1.97 | FRA10AC1 |
Zornitza Stark gene: FRA10AC1 was added gene: FRA10AC1 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: FRA10AC1 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: FRA10AC1 were set to 34694367 Phenotypes for gene: FRA10AC1 were set to Neurodevelopmental disorder, MONDO:0700092, FRA10AC1-related Review for gene: FRA10AC1 was set to GREEN Added comment: PMID 34694367: 5 individuals from 3 unrelated families reported. Variable ID, possibly related to variant type with LoF variants associated with more severe ID. All individuals had microcephaly, hypoplasia or agenesis of the corpus callosum, growth retardation, and craniofacial dysmorphism. Sources: Literature |
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| Microcephaly v1.93 | TTI2 |
Zornitza Stark gene: TTI2 was added gene: TTI2 was added to Microcephaly. Sources: Expert Review Mode of inheritance for gene: TTI2 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: TTI2 were set to 32061250; 23956177; 31737043 Phenotypes for gene: TTI2 were set to Mental retardation, autosomal recessive 39 (MIM#615541) Review for gene: TTI2 was set to GREEN Added comment: PMID: 32061250 reviews reports of TTI2-related ID in 6 families. Common features are microcephaly and DD, but there is phenotypic variability reported with syndromic and non-syndromic individuals. Other features include speech delay, short stature, dysmorphic features (high nasal bridge, deep-set eyes), strabismus and dyskenesia. Six missense and one NMD were reported in hom and cHet individuals. Functional evidence is limited, but suggestive of LoF (PMIDs: 23956177, 31737043). Sources: Expert Review |
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| Microcephaly v1.83 | ZBTB18 |
Zornitza Stark gene: ZBTB18 was added gene: ZBTB18 was added to Microcephaly. Sources: Expert Review Mode of inheritance for gene: ZBTB18 was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: ZBTB18 were set to 29573576 Phenotypes for gene: ZBTB18 were set to Mental retardation, autosomal dominant 22, MIM# 612337 Review for gene: ZBTB18 was set to GREEN Added comment: Van der Schoot et al. (2018) reported 4 unrelated patients with MRD22 and summarized clinical information on 21 previously reported patients. All 25 patients had developmental delay, including 7 of 17 with microcephaly, 9 of 15 with corpus callosum abnormalities, 10 of 13 with dysmorphic facial features, and 4 of 17 with seizures. Sources: Expert Review |
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| Microcephaly v1.74 | FOXR1 |
Paul De Fazio gene: FOXR1 was added gene: FOXR1 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: FOXR1 was set to MONOALLELIC, autosomal or pseudoautosomal, imprinted status unknown Publications for gene: FOXR1 were set to 34723967 Phenotypes for gene: FOXR1 were set to Postnatal microcephaly, progressive brain atrophy and global developmental delay Review for gene: FOXR1 was set to AMBER gene: FOXR1 was marked as current diagnostic Added comment: 1 patient described with a de novo missense variant. Phenotypes include: postnatal microcephaly, progressive brain atrophy, skeletal abnormalities, brain abnormalities, ophthalmic abnormalities, neuromuscular abnormalities, and dysmorphic features. A variant in ATP1A3 was considered to have contributed to the final phenotype. In vitro functional evidence is supportive of pathogenicity (variant causes protein instability and abnormal nuclear aggregation). A mouse knockout has comparable phenotypes, and a severe survival deficit. Rated amber (1 patient, functional evidence, mouse model). Sources: Literature |
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| Microcephaly v1.70 | ATP1A2 | Zornitza Stark Phenotypes for gene: ATP1A2 were changed from hydrops fetalis, microcephaly, arthrogryposis and extensive cortical malformations to Fetal akinesia, respiratory insufficiency, microcephaly, polymicrogyria, and dysmorphic facies, MIM# 619602 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.69 | ATP1A2 | Zornitza Stark reviewed gene: ATP1A2: Rating: ; Mode of pathogenicity: None; Publications: ; Phenotypes: Fetal akinesia, respiratory insufficiency, microcephaly, polymicrogyria, and dysmorphic facies, MIM# 619602; Mode of inheritance: None | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.66 | NUP85 |
Zornitza Stark gene: NUP85 was added gene: NUP85 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: NUP85 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: NUP85 were set to 34170319 Phenotypes for gene: NUP85 were set to Primary microcephaly Review for gene: NUP85 was set to AMBER Added comment: Bi-allelic variants in this gene are associated with nephrotic syndrome in 3 families. Phenotypic expansion: PMID: 34170319 - Ravindran et al 2021 report two pedigrees with an MCPH-SCKS phenotype spectrum without SRNS. In the first family, a 9 yo female, with consanguineous parents, is reported to have a missense variant in NUP85 (c.932G > A; p.R311Q). Intrauterine growth restriction was noticed. At birth microcephaly was observed (OFC < 3rd centile, < −3.6 SD) as well as hypotrophy [weight −2.8 SD), length 45 cm (−2.7 SD), both <3rd centile], facial dysmorphism, syndactyly, long and thin fingers, and bilateral pes adductus. She has severe developmental delay with strongly delayed motor milestones and absent speech. Drug-resistant, genetic epilepsy with focal-onset seizures started in the first year of life. She had no clinical, laboratory or radiological findings indicative of kidney dysfunction. In the second family, compound heterozygous missense variants in NUP85 were detected (c.1109A > G, c.1589 T > C;p.N370S, p.M530T ) in a fetus. MRI of the fetal brain at 24 + 2 GW indicated complete agenesis of the corpus callosum, abnormal sulcation in the left frontal lobe, nodularity of the frontal horn and trigone with focal puckering of the left lateral ventricle. Sources: Literature |
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| Microcephaly v1.61 | TNPO2 | Zornitza Stark Phenotypes for gene: TNPO2 were changed from Intellectual disability, neurologic deficits and dysmorphic features to Intellectual developmental disorder with hypotonia, impaired speech, and dysmorphic facies, MIM# 619556 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.60 | TNPO2 | Zornitza Stark edited their review of gene: TNPO2: Changed phenotypes: Intellectual developmental disorder with hypotonia, impaired speech, and dysmorphic facies, MIM# 619556 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.58 | WLS |
Teresa Zhao gene: WLS was added gene: WLS was added to Microcephaly. Sources: Literature Mode of inheritance for gene: WLS was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: WLS were set to PMID: 34587386 Phenotypes for gene: WLS were set to Syndromic structural birth defects Review for gene: WLS was set to GREEN Added comment: - Homozygous mutations in 10 affected persons from 5 unrelated families. - Patients had multiorgan defects, including microcephal, facial dysmorphism, foot syndactyly, renal agenesis, alopecia, iris coloboma, and heart defects. - The mutations affected WLS protein stability and Wnt signaling. Knock-in mice showed tissue and cell vulnerability consistent with Wnt-signaling intensity and individual and collective functions of Wnts in embryogenesis. Sources: Literature |
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| Microcephaly v1.51 | HMGB1 | Chirag Patel Phenotypes for gene: HMGB1 were changed from 0 ALDH5A1 1 ALDH7A1 0 ALG1 0 ALG11 1 ALG12 1 ALG13 1 ALG14 1 ALG3 1 ALG6 1 ALG8 1 ALG9 1 ALKBH8 1 ALMS1 0 AMER1 0 AMPD2 0 AMT 0 ANK2 2 ANKRD11 0 ANKRD17 2 AP1B1 1 AP1G1 1 AP1S1 0 AP1S2 0 AP2M1 1 AP3B1 0 AP3B2 1 AP4B1 1 AP4E1 1 AP4M1 1 AP4S1 1 APC2 1 APOPT1 1 ARCN1 1 ARF1 1 ARFGEF2 0 ARG1 0 ARHGEF9 1 ARID1A 1 ARID1B 1 ARID2 2 ARL13B 1 ARL6 1 ARMC9 1 ARSA 0 ARSB 1 ARSE 1 ARV1 0 ARX 0 ASAH1 0 ASH1L 1 ASL 1 ASNS 1 ASPA 0 ASPM 1 ASS1 0 ASTN1 1 ASXL1 0 ASXL2 0 ASXL3 1 ATAD1 1 ATAD3A 1 ATG7 1 ATIC 1 ATM 0 ATN1 1 ATP13A2 0 ATP1A1 1 ATP1A2 1 ATP1A3 2 ATP6AP1 1 ATP6AP2 0 ATP6V0A2 0 ATP6V1A 1 ATP6V1B2 0 ATP7A 0 ATP8A2 1 ATR 0 ATRX 0 AUH 0 AUTS2 1 B3GALNT2 1 B3GLCT 0 B4GALNT1 0 B4GALT1 1 B4GALT7 1 B9D2 1 BAZ2B 1 BBS1 0 BBS10 0 BBS12 0 BBS2 0 BBS4 1 BBS5 1 BBS7 1 BBS9 1 BCAP31 0 BCAS3 1 BCKDHA 0 BCKDHB 0 BCKDK 0 BCL11A 0 BCL11B 1 BCOR 1 BCORL1 1 BCS1L 0 BICRA 3 BLM 0 BMP4 0 BOLA3 0 BPTF 1 BRAF 0 BRAT1 1 BRD4 2 BRF1 1 BRIP1 1 BRPF1 1 BRSK2 1 BRWD3 0 BSCL2 0 BSND 1 BTD 0 BUB1B 0 C12orf4 0 C12orf57 0 C12orf65 0 C2CD3 1 C2orf69 1 C5orf42 1 CA2 1 CA8 1 CACNA1A 0 CACNA1B 1 CACNA1C 0 CACNA1D 1 CACNA1E 1 CACNA1G 2 CACNA1I 1 CACNA2D2 1 CAD 1 CAMK2A 0 CAMK2B 1 CAMK4 1 CAMTA1 2 CAPN15 1 CARS 1 CARS2 1 CASK 0 CBL 0 CBS 0 CBY1 1 CC2D1A 1 CC2D2A 0 CCBE1 1 CCDC22 0 CCDC47 1 CCDC88A 1 CCDC88C 2 CCND2 0 CDC42 0 CDC42BPB 1 CDH11 2 CDH15 0 CDH2 1 CDK10 0 CDK13 1 CDK19 1 CDK5RAP2 1 CDK8 1 CDKL5 0 CDON 0 CELF2 1 CENPF 0 CENPJ 0 CEP104 1 CEP120 1 CEP135 1 CEP152 1 CEP164 1 CEP290 0 CEP41 0 CEP55 1 CEP57 1 CEP83 1 CEP85L 1 CHAMP1 0 CHD1 1 CHD2 0 CHD3 1 CHD4 1 CHD5 1 CHD7 0 CHD8 0 CHKB 0 CHMP1A 1 CIC 0 CIT 0 CKAP2L 0 CLCN3 1 CLCN4 1 CLCN6 1 CLCNKB 1 CLN3 0 CLN5 1 CLN6 0 CLN8 0 CLP1 1 CLPB 1 CLTC 1 CNKSR2 0 CNNM2 0 CNOT1 3 CNOT2 1 CNOT3 2 CNPY3 1 CNTNAP1 1 CNTNAP2 0 COASY 1 COG1 0 COG4 1 COG5 1 COG6 1 COG7 0 COG8 1 COL4A1 0 COL4A2 0 COL4A3BP 0 COLEC11 0 COPB2 2 COQ4 0 COQ8A 0 COX10 1 COX15 0 CPS1 0 CRADD 1 CRB2 0 CREBBP 1 CSDE1 1 CSNK1G1 2 CSNK2A1 0 CSNK2B 0 CSPP1 1 CSTB 0 CTBP1 1 CTCF 1 CTDP1 0 CTNNA2 1 CTNNB1 0 CTSA 0 CTSD 0 CTU2 1 CUL3 2 CUL4B 0 CUX1 1 CUX2 1 CWC27 0 CWF19L1 1 CXorf56 1 CYB5R3 0 CYC1 0 CYFIP2 1 D2HGDH 0 DAG1 0 DARS 1 DARS2 0 DBT 0 DCAF17 0 DCHS1 0 DCPS 1 DCX 0 DDB1 2 DDC 0 DDHD2 0 DDX11 1 DDX23 2 DDX3X 0 DDX59 1 DDX6 1 DEAF1 1 DEGS1 1 DENND5A 1 DEPDC5 0 DHCR24 0 DHCR7 0 DHDDS 1 DHFR 1 DHPS 1 DHTKD1 0 DHX30 1 DHX37 2 DIAPH1 0 DIS3L2 0 DKC1 0 DLD 0 DLG3 1 DLG4 2 DLL1 1 DMD 0 DMXL2 1 DNAJC12 1 DNAJC19 0 DNM1 1 DNM1L 1 DNMT3A 1 DNMT3B 0 DOCK3 1 DOCK6 1 DOCK7 1 DOCK8 0 DOLK 1 DPAGT1 1 DPF2 0 DPH1 1 DPM1 0 DPM2 1 DPYD 1 DPYS 1 DPYSL5 1 DYM 1 DYNC1H1 0 DYNC1I2 1 DYRK1A 1 EARS2 1 EBF3 1 EBP 1 EDEM3 2 EED 1 EEF1A2 1 EEF2 1 EFTUD2 1 EHMT1 1 EIF2AK2 2 EIF2AK3 0 EIF2S3 1 EIF3F 1 EIF4A3 1 EIF5A 1 ELAC2 0 ELOVL4 0 ELP2 0 EMC1 1 EMC10 2 EML1 1 EP300 0 EPG5 1 ERCC1 1 ERCC2 0 ERCC3 0 ERCC5 1 ERCC6 0 ERCC6L2 0 ERCC8 0 ERLIN2 1 ESCO2 0 ETFA 1 ETFB 1 ETFDH 1 ETHE1 0 EXOC7 1 EXOSC3 0 EXOSC8 1 EXT2 1 EXTL3 1 EZH2 1 FAM111A 0 FAM126A 0 FAM20C 0 FAM50A 1 FAR1 1 FARS2 1 FARSA 1 FARSB 1 FAT4 0 FBRSL1 1 FBXL3 2 FBXL4 0 FBXO11 1 FBXO28 1 FBXO31 2 FBXW11 2 FBXW7 1 FDFT1 1 FGD1 1 FGF12 0 FGF13 1 FGF14 1 FGFR1 1 FGFR3 1 FH 0 FIG4 0 FITM2 1 FKRP 0 FKTN 0 FLNA 0 FLVCR2 0 FMN2 0 FMR1 0 FOLR1 1 FOXG1 0 FOXP1 2 FOXP2 1 FOXRED1 0 FRAS1 1 FRMPD4 1 FRRS1L 1 FTCD 1 FTSJ1 0 FUCA1 0 FUT8 1 GABBR2 1 GABRA1 1 GABRA2 1 GABRA5 1 GABRB2 0 GABRB3 1 GABRG2 1 GAD1 1 GALC 0 GALE 0 GALNT2 1 GALT 1 GAMT 0 GATA6 1 GATAD2B 1 GATM 1 GCDH 0 GCH1 0 GDI1 0 GEMIN5 1 GFAP 0 GFER 1 GFM1 0 GJC2 0 GK 0 GLB1 0 GLDC 0 GLI2 0 GLI3 0 GLIS3 1 GLS 1 GLUL 0 GLYCTK 0 GM2A 0 GMPPA 0 GMPPB 0 GNAI1 2 GNAO1 1 GNAS 1 GNB1 1 GNB2 3 GNB5 1 GNE 1 GNPAT 0 GNPTAB 0 GNPTG 1 GNS 0 GOLGA2 2 GOT2 1 GPAA1 1 GPC3 0 GPC4 1 GPT2 1 GRIA1 1 GRIA2 2 GRIA3 1 GRIA4 0 GRID2 0 GRIK2 1 GRIN1 1 GRIN2A 1 GRIN2B 1 GRIN2D 1 GRM1 0 GRM7 1 GSS 1 GTF2H5 0 GTF3C3 1 GTPBP2 1 GTPBP3 0 GUSB 1 H3F3A 1 H3F3B 1 HACE1 1 HADHA 0 HADHB 1 HCCS 0 HCFC1 0 HCN1 0 HDAC4 2 HDAC8 1 HECW2 2 HEPACAM 0 HERC1 0 HERC2 2 HESX1 0 HEXA 0 HEXB 0 HGSNAT 1 HIBCH 0 HID1 1 HIRA 1 HIST1H1E 1 HIST1H4C 2 HIVEP2 1 HK1 2 HLCS 0 HMGB1 1 HMGCL 0 HNMT 1 HNRNPH1 1 HNRNPH2 0 HNRNPK 0 HNRNPR 1 HNRNPU 1 HOXA1 0 HPD 0 HPDL 2 HPRT1 0 HRAS 1 HS2ST1 3 HSD17B10 0 HSD17B4 1 HSPD1 0 HSPG2 1 HTRA2 0 HUWE1 1 IARS 1 IBA57 1 IDH2 0 IDS 0 IDUA 0 IER3IP1 1 IFIH1 0 IFT172 0 IFT27 1 IFT74 1 IGF1 1 IGF1R 1 IKBKG 0 IL1RAPL1 0 IMPDH2 2 INPP5E 1 INPP5K 0 INTS1 1 IQSEC1 1 IQSEC2 1 IREB2 1 IRF2BPL 1 ISCA1 1 ISCA2 1 ISPD 0 ITPA 0 ITPR1 0 IVD 0 JAM3 1 JARID2 1 JMJD1C 2 KANSL1 1 KARS 1 KAT5 2 KAT6A 0 KAT6B 0 KAT8 1 KATNB1 1 KCNA2 1 KCNB1 1 KCNC1 0 KCNH1 1 KCNJ10 0 KCNJ11 0 KCNJ6 1 KCNK4 1 KCNK9 1 KCNMA1 1 KCNN2 1 KCNN3 1 KCNQ2 0 KCNQ3 1 KCNQ5 1 KCNT1 0 KCNT2 1 KCTD3 0 KCTD7 0 KDM1A 1 KDM3B 2 KDM4B 2 KDM5B 1 KDM5C 1 KDM6A 0 KDM6B 1 KIAA0586 0 KIAA1109 0 KIDINS220 1 KIF11 2 KIF14 1 KIF1A 2 KIF1BP 1 KIF21B 1 KIF2A 1 KIF5A 0 KIF5C 1 KIF7 0 KLF7 1 KLHL7 0 KMT2A 1 KMT2B 1 KMT2C 1 KMT2D 2 KMT2E 1 KMT5B 1 KNL1 1 KPTN 1 KRAS 0 L1CAM 0 L2HGDH 0 LAMA1 0 LAMA2 1 LAMB1 1 LAMB2 1 LAMC3 0 LAMP2 0 LARGE1 0 LARP7 1 LARS 2 LARS2 0 LIAS 1 LIG4 0 LINGO4 1 LINS1 0 LIPT1 1 LMBRD1 1 LMBRD2 2 LMNB1 2 LMNB2 2 LONP1 0 LRP2 0 LRPPRC 0 LSS 1 LTBP1 1 LYRM7 1 LZTFL1 1 LZTR1 1 MAB21L1 2 MAB21L2 1 MACF1 1 MADD 3 MAF 0 MAGEL2 1 MAN1B1 1 MAN2B1 1 MANBA 1 MAOA 1 MAP1B 1 MAP2K1 0 MAP2K2 0 MAPK1 2 MAPK8IP3 2 MAPKAPK5 1 MAPRE2 1 MASP1 1 MAST1 1 MAST3 1 MAT1A 0 MBD5 1 MBOAT7 0 MBTPS2 0 MCCC1 0 MCCC2 0 MCM3AP 1 MCOLN1 1 MCPH1 1 MDH2 0 MECP2 1 MED12 0 MED12L 1 MED13 1 MED13L 0 MED17 1 MED23 0 MED25 1 MED27 2 MEF2C 1 MEGF8 2 MEIS2 0 METTL23 2 METTL5 1 MFF 0 MFSD2A 1 MFSD8 1 MGAT2 1 MICU1 1 MID1 0 MIR17HG 2 MKKS 0 MKS1 0 MLC1 0 MLYCD 1 MMAA 0 MMAB 0 MMACHC 0 MMADHC 0 MN1 2 MOCS1 1 MOCS2 0 MOGS 1 MORC2 2 MPDU1 1 MPDZ 1 MPLKIP 1 MPP5 1 MPV17 1 MRPS22 0 MRPS34 1 MSL3 1 MSMO1 1 MTFMT 0 MTHFR 0 MTHFS 1 MTO1 1 MTOR 0 MTR 1 MTRR 1 MUT 0 MVK 0 MYCN 0 MYO5A 0 MYT1L 2 NAA10 0 NAA15 1 NACC1 0 NAGA 0 NAGLU 0 NALCN 0 NANS 0 NARS 2 NBEA 1 NCAPD2 2 NCAPG2 1 NCDN 2 NCKAP1 1 NDE1 1 NDP 0 NDST1 0 NDUFA1 0 NDUFA2 1 NDUFAF1 1 NDUFS1 1 NDUFS4 1 NDUFS7 0 NDUFS8 0 NDUFV1 0 NEDD4L 1 NEMF 2 NEU1 0 NEUROD2 1 NEXMIF 1 NF1 0 NFASC 1 NFIA 0 NFIB 1 NFIX 0 NFU1 1 NGLY1 0 NHS 0 NIPBL 1 NKAP 1 NKX2-1 0 NLGN3 0 NONO 0 NOVA2 1 NPC1 0 NPC2 0 NPHP1 0 NPHP3 1 NR2F1 1 NR4A2 2 NRAS 0 NRROS 1 NRXN1 0 NSD1 0 NSD2 1 NSDHL 1 NSUN2 0 NT5C2 1 NTNG2 1 NTRK1 0 NTRK2 1 NUBPL 0 NUDT2 1 NUP188 1 NUP214 2 NUS1 1 OCLN 0 OCRL 0 ODC1 1 OFD1 0 OGT 1 OPA3 0 OPHN1 0 OSGEP 1 OTC 0 OTUD5 2 OTUD6B 0 OTX2 0 OXR1 1 P4HTM 1 PACS1 1 PACS2 1 PAFAH1B1 1 PAH 0 PAK1 1 PAK3 1 PAM16 1 PARN 0 PARP6 1 PAX6 0 PAX8 0 PBX1 0 PC 0 PCCA 0 PCCB 0 PCDH12 1 PCDH19 0 PCDHGC4 1 PCGF2 1 PCNT 0 PCYT2 1 PDE10A 1 PDE4D 0 PDE6D 1 PDGFRB 0 PDHA1 0 PDHB 1 PDHX 0 PDP1 1 PDSS1 1 PDSS2 0 PEPD 0 PET100 1 PEX1 0 PEX10 0 PEX11B 0 PEX12 0 PEX13 0 PEX14 0 PEX16 0 PEX19 0 PEX2 0 PEX26 0 PEX3 0 PEX5 0 PEX6 0 PEX7 0 PGAP1 0 PGAP2 1 PGAP3 1 PGK1 1 PGM2L1 1 PGM3 1 PHACTR1 1 PHF21A 2 PHF6 0 PHF8 1 PHGDH 0 PHIP 1 PI4KA 1 PIBF1 2 PIDD1 1 PIGA 1 PIGB 2 PIGC 1 PIGG 1 PIGH 1 PIGK 1 PIGL 1 PIGN 1 PIGO 1 PIGP 2 PIGQ 1 PIGS 1 PIGT 1 PIGU 1 PIGV 1 PIGW 0 PIK3C2A 1 PIK3CA 0 PIK3R2 1 PISD 1 PITRM1 1 PLA2G6 0 PLAA 0 PLCB1 1 PLK4 1 PLP1 0 PLPBP 1 PMM2 0 PMPCA 1 PMPCB 1 PNKP 1 PNPLA6 0 PNPT1 1 POGZ 1 POLA1 1 POLG 0 POLR1C 1 POLR2A 1 POLR3A 0 POLR3B 0 POLRMT 1 POMGNT1 0 POMGNT2 0 POMK 1 POMT1 0 POMT2 0 PORCN 0 POU3F3 1 PPIL1 1 PPM1D 1 PPP1CB 1 PPP1R12A 1 PPP1R15B 0 PPP1R21 1 PPP2CA 1 PPP2R1A 1 PPP2R5D 1 PPP3CA 0 PPT1 0 PQBP1 1 PRICKLE2 1 PRKAR1A 1 PRKAR1B 1 PRMT7 0 PRODH 0 PRPS1 0 PRR12 1 PRSS12 0 PRUNE1 1 PSAP 1 PSMD12 0 PSPH 0 PTCH1 0 PTCHD1 0 PTDSS1 0 PTEN 0 PTF1A 0 PTPN11 0 PTPN23 1 PTPN4 1 PTRHD1 1 PTS 0 PUF60 1 PUM1 1 PURA 1 PUS1 0 PUS3 1 PUS7 1 PYCR1 0 PYCR2 0 QARS 1 QDPR 0 QRICH1 1 RAB11B 1 RAB18 0 RAB23 0 RAB39B 0 RAB3GAP1 1 RAB3GAP2 0 RAC1 1 RAC3 1 RAD21 1 RAF1 0 RAI1 1 RALA 1 RALGAPA1 1 RAP1B 2 RARB 1 RARS 1 RARS2 0 RBBP8 0 RBM10 1 RELN 0 RERE 1 RFT1 1 RFX3 1 RFX4 1 RFX7 1 RHEB 1 RHOBTB2 1 RIT1 0 RLIM 1 RMND1 0 RNASEH2A 0 RNASEH2B 0 RNASEH2C 0 RNASET2 0 RNF125 0 RNF13 1 RNF220 1 RNU4ATAC 1 RNU7-1 2 ROGDI 1 ROR2 0 RORA 1 RPGRIP1L 0 RPIA 1 RPL10 1 RPS6KA3 0 RRM2B 0 RSRC1 1 RTEL1 0 RTN4IP1 1 RTTN 1 SAMD9 0 SAMHD1 0 SARS2 1 SATB1 2 SATB2 1 SBF1 1 SC5D 0 SCAF4 1 SCAMP5 2 SCAPER 1 SCN1A 1 SCN1B 1 SCN2A 0 SCN3A 1 SCN8A 0 SCO2 0 SDCCAG8 1 SDHA 0 SDHAF1 1 SEPSECS 1 SERAC1 0 SET 0 SETBP1 0 SETD1A 1 SETD1B 1 SETD2 1 SETD5 1 SFXN4 1 SGPL1 0 SGSH 1 SHANK2 0 SHANK3 1 SHH 0 SHMT2 2 SHOC2 1 SIAH1 1 SIK1 0 SIL1 1 SIN3A 0 SIN3B 1 SIX3 0 SKI 0 SLC12A2 3 SLC12A5 0 SLC12A6 0 SLC13A5 1 SLC16A2 1 SLC17A5 0 SLC18A2 1 SLC19A3 0 SLC1A1 1 SLC1A2 1 SLC1A4 1 SLC25A1 0 SLC25A12 0 SLC25A15 0 SLC25A22 0 SLC2A1 0 SLC33A1 0 SLC35A1 0 SLC35A2 0 SLC35C1 0 SLC39A14 0 SLC39A8 1 SLC46A1 1 SLC4A4 0 SLC5A6 1 SLC6A1 1 SLC6A17 0 SLC6A19 0 SLC6A3 0 SLC6A8 0 SLC6A9 1 SLC9A6 1 SLX4 0 SMAD4 0 SMARCA2 1 SMARCA4 0 SMARCA5 1 SMARCB1 0 SMARCC2 1 SMARCD1 1 SMARCE1 0 SMC1A 0 SMC3 0 SMG8 2 SMG9 1 SMOC1 1 SMPD1 1 SMPD4 1 SMS 0 SNAP25 1 SNAP29 0 SNRPB 1 SNX14 0 SNX27 1 SON 1 SOS1 1 SOS2 1 SOX10 0 SOX11 0 SOX2 1 SOX4 1 SOX5 1 SOX6 2 SOX9 0 SPART 1 SPATA5 1 SPECC1L 0 SPEN 2 SPG11 1 SPOP 1 SPR 0 SPRED1 1 SPTAN1 1 SPTBN1 1 SPTBN2 0 SPTBN4 2 SRCAP 2 SRD5A3 0 SSR4 0 ST3GAL3 0 ST3GAL5 2 STAG1 0 STAG2 1 STAMBP 1 STIL 1 STRA6 0 STRADA 1 STT3A 2 STX1B 0 STXBP1 0 SUCLA2 1 SUCLG1 0 SUFU 1 SUMF1 1 SUOX 0 SUPT16H 1 SURF1 0 SUZ12 2 SVBP 2 SYN1 0 SYNCRIP 2 SYNGAP1 1 SYNJ1 0 SYP 0 SYT1 2 SZT2 0 TAF1 1 TAF2 2 TAF6 1 TANC2 2 TANGO2 0 TAOK1 1 TASP1 1 TAT 0 TAZ 0 TBC1D20 1 TBC1D23 0 TBC1D24 0 TBCD 1 TBCE 0 TBCK 0 TBL1XR1 0 TBR1 1 TBX1 1 TCF20 1 TCF4 0 TCF7L2 2 TCN2 1 TCTN2 0 TCTN3 1 TDP2 1 TECPR2 1 TELO2 1 TENM3 1 TERT 2 TET3 1 TFE3 2 TGIF1 1 TH 0 THOC2 1 THOC6 0 THRA 0 TIMM50 1 TINF2 1 TLK2 1 TMCO1 0 TMEM106B 1 TMEM165 1 TMEM216 0 TMEM222 2 TMEM237 1 TMEM240 0 TMEM5 0 TMEM67 1 TMEM70 0 TMEM94 1 TMTC3 1 TMX2 1 TNPO2 1 TNR 1 TNRC6B 2 TOE1 1 TOGARAM1 1 TP73 1 TPP1 1 TPP2 1 TRAF7 1 TRAIP 1 TRAK1 1 TRAPPC11 1 TRAPPC12 1 TRAPPC4 1 TRAPPC6B 1 TRAPPC9 2 TREX1 0 TRIM8 1 TRIO 1 TRIP12 1 TRIT1 1 TRMT1 1 TRMT10A 1 TRNT1 1 TRPM3 1 TRRAP 1 TSC1 0 TSC2 0 TSEN15 1 TSEN2 0 TSEN54 0 TSFM 0 TSHB 0 TSPAN7 0 TSPOAP1 1 TTC19 0 TTC37 0 TTC5 2 TTC8 1 TTI2 1 TUBA1A 0 TUBB 1 TUBB2A 1 TUBB2B 0 TUBB3 0 TUBB4A 0 TUBG1 0 TUBGCP2 1 TUBGCP6 1 TUSC3 1 TWIST1 0 UBA5 0 UBE2A 1 UBE3A 0 UBE3B 1 UBE4A 1 UBR1 1 UBR7 1 UBTF 1 UFC1 1 UFM1 1 UFSP2 2 UGDH 1 UGP2 1 UMPS 1 UNC80 1 UPB1 2 UPF3B 2 USP18 1 USP7 2 USP9X 1 VAMP2 2 VARS 1 VARS2 1 VIPAS39 1 VLDLR 0 VPS11 1 VPS13B 0 VPS33B 1 VPS41 1 VPS4A 3 VPS53 0 VRK1 0 WAC 1 WARS2 1 WASF1 2 WASHC4 3 WDFY3 1 WDPCP 1 WDR11 2 WDR26 1 WDR37 1 WDR4 2 WDR45 0 WDR45B 1 WDR62 1 WDR73 0 WDR81 1 WNT1 1 WNT5A 2 WWOX 0 XPA 2 XRCC4 0 XYLT1 2 YARS 1 YIF1B 2 YWHAG 1 YY1 0 ZBTB18 0 ZBTB20 0 ZBTB24 1 ZC4H2 0 ZDHHC9 0 ZEB2 1 ZFHX4 1 ZFYVE26 0 ZIC1 1 ZIC2 0 ZMIZ1 2 ZMYM2 2 ZMYND11 1 ZNF142 1 ZNF148 1 ZNF292 2 ZNF335 1 ZNF462 2 ZNF526 1 ZNF699 1 ZNF711 1 ZSWIM6 1 AASS 1 ACADSB 1 ACAT1 1 ADAM22 1 AKAP6 1 ALDOA 1 ALX1 1 ALX3 1 ALX4 1 AP2S1 1 ARF3 2 ARHGAP31 1 ARHGAP35 1 ARNT2 1 ATP6V0A1 1 ATP9A 1 ATXN2L 1 B3GALT6 1 B9D1 1 BBIP1 1 C16orf62 1 C8orf37 1 CACNB4 1 CAPZA2 1 CCDC174 1 CCDC78 1 CD96 1 CDK16 1 CDK6 1 CDKN1C 1 CEP63 1 CEP89 1 CHRM1 1 CHST14 1 CLCN2 1 CNKSR1 1 COPB1 1 COQ2 1 COQ9 1 COX14 1 COX20 1 COX7B 1 CPE 1 CRBN 1 CTC1 1 CTNND1 1 CTNND2 1 DDOST 1 DHX32 1 DLAT 1 DPH2 1 DPP6 2 DSCAM 1 EEF1B2 1 EEF1D 1 EIF2A 1 EMG1 1 EMX2 1 EPHA7 1 ERGIC3 2 EXOC2 2 EXOSC2 1 FANCB 1 FANCD2 1 FANCG 1 FASTKD2 1 FEM1B 1 FGFR2 1 FIBP 1 FOXP4 1 FRMD4A 1 FRY 1 FTO 1 FUK 1 GBA 1 GEMIN4 1 GIGYF1 1 GMNN 1 GNAI2 1 GNAQ 1 GORAB 1 GPHN 1 GSX2 1 GTF2E2 2 HARS 2 HAX1 1 HEATR5B 1 HIST1H4J 1 HNRNPD 1 HSPA9 1 HTT 1 HYLS1 1 ICE1 1 IMPA1 1 INPP4A 1 IQSEC3 2 ITCH 1 ITFG2 2 ITGA7 1 JAKMIP1 1 KCNJ1 1 KLHL15 1 LAS1L 1 LINGO1 1 LIPT2 1 LMAN2L 1 LNPK 1 LRRC32 1 LYST 1 MAGT1 1 MMGT1 1 MRPL3 2 MSL2 1 NBN 1 NDUFA10 1 NDUFA11 1 NDUFA9 1 NDUFAF2 1 NDUFAF3 1 NDUFAF4 1 NDUFAF5 1 NDUFAF6 1 NDUFB3 1 NDUFB9 1 NDUFS2 1 NDUFS3 1 NDUFS6 1 NDUFV2 1 NECAP1 1 NHP2 1 NMNAT1 1 NR2F2 1 NSF 1 PAX1 1 PDCD6IP 1 PDE2A 1 PHC1 1 PIEZO2 1 PIGY 1 PJA1 1 PLCH1 1 PLEKHG2 1 PLOD3 1 PLXNA2 1 PPP2R5C 1 PRKACB 2 PRKD1 2 PRRT2 1 PSAT1 1 PSMB1 1 PSMC3 1 PSMC5 1 PTRH2 1 RAB11A 1 RAB14 1 RAP1GDS1 1 RIC1 1 RMRP 1 RNF113A 1 RNF2 1 RPS23 1 RSPRY1 1 RUSC2 1 SACS 1 SEC31A 1 SEMA3E 1 SEMA5A 1 SHROOM4 1 SLC2A2 1 SLC35A3 2 SLC45A1 1 SLC5A5 1 SLC9A7 1 SMARCD2 1 SNORD118 1 SNRPN 1 SOX3 2 SRRM2 1 STN1 1 TACO1 1 TAF13 1 TAF1C 1 TARS 1 TBC1D2B 2 TBC1D7 1 TGFB1 1 THRB 1 TKFC 1 TKT 2 TMEM231 1 TMLHE 1 TNIK 1 TOP2B 1 TRAPPC2L 1 TRIP13 1 TTI1 2 TUBGCP4 1 TUFM 1 U2AF2 1 UPF1 1 UQCC2 1 USP27X 1 VPS37A 1 VPS50 1 VPS51 1 WFS1 2 YAP1 1 ZBTB11 1 ZBTB16 1 ZC3H14 4 ZFHX3 2 ZNF407 2 ZNF668 1 ABCC6 2 ABCG5 1 ACOX2 1 ACTA1 1 ADA2 1 ADAMTSL2 1 ADCY5 1 ADGRB3 1 ADGRG6 2 ADRA2B 1 AFG3L2 1 AGGF1 1 AGK 1 AGL 1 AGO3 1 AGPS 1 AGT 1 AGTR2 1 AKR1C2 1 ALDOB 1 ALG2 1 ALS2 1 ANK3 1 ANKH 1 APTX 1 AR 1 ARHGEF6 1 ASMT 1 ATL1 1 ATP10A 1 ATP2A2 1 ATP2B3 1 ATP2C2 1 ATXN10 1 AVP 1 AVPR1A 1 AVPR2 1 B3GAT3 1 BDNF 1 BICD2 1 BIN1 1 BMPER 1 C19orf12 1 C3orf58 1 CA5A 1 CACNG2 1 CANT1 1 CCDC8 1 CDC6 1 CDK5R1 1 CDT1 1 CFH 1 CFHR1 1 CFHR3 1 CHRNA4 1 CISD2 1 CLCNKA 1 CLIC2 1 CLIP2 1 CLPP 1 CMAS 1 CNTN3 1 CNTN4 1 CNTN6 1 CNTNAP5 1 COA3 1 COL18A1 1 COL1A2 1 COLEC10 1 COQ5 1 CORO1A 1 COX4I2 1 COX6B1 1 CP 1 CPA6 1 CRKL 1 CRLF1 1 CRTAP 1 CTSF 1 CUBN 1 CYFIP1 1 CYP27A1 1 CYP2U1 1 DDR2 1 DISP1 1 DLGAP2 1 DLK1 2 DNAJA1 1 DNAJC3 1 DNAJC6 1 DOCK4 1 DOK7 1 DPM3 1 DPP10 1 DSCR3 1 DSE 1 DTYMK 1 DUOXA2 1 DYNC2H1 1 EDC3 1 EDNRB 1 EFNB1 1 EFNB2 1 EIF2AK1 1 EIF2B1 1 EIF2B2 1 EIF2B3 1 EIF2B4 1 EIF2B5 1 ELMOD1 1 EOGT 1 EOMES 1 EPB41L1 1 EPM2A 1 ERCC4 1 ERF 1 ERMARD 1 ETS1 1 EVC 1 EVC2 1 FA2H 1 FAAH2 1 FAM160B1 1 FBLN5 1 FBN1 1 FDXR 1 FGF3 1 FLNB 1 FLVCR1 1 FTL 1 FZD3 1 G6PC3 1 GABRG1 1 GAN 1 GATA1 1 GBA2 1 GBE1 1 GCK 1 GCSH 1 GHR 1 GJA1 1 GJB1 1 GLRA1 1 GLUD1 1 GNA14 1 GOSR2 1 GPSM2 1 GRPR 1 GSPT2 1 GTF2I 1 GTF2IRD1 1 GYS2 1 H19 1 HADH 1 HAL 1 HARS2 1 HOXD10 1 IFT140 1 IGBP1 1 IGF2 1 IMMP2L 1 INS 1 INSR 1 INTS8 1 IRX5 1 IYD 1 JAG1 1 JPH3 1 KANK1 1 KATNAL2 1 KCNC3 1 KCND3 1 KCTD13 1 KIF16B 1 KIF1B 1 KIF21A 1 KIF4A 1 KIRREL3 1 KLF8 1 KLLN 1 KYNU 1 LBR 1 LGI4 1 LHX3 1 LMNA 1 LRP5 1 LSM1 1 LSM11 2 MACROD2 1 MAP4K4 2 MARS2 2 MCM4 1 MEPCE 1 MET 1 METAP1 1 MFN2 1 MGME1 1 MGP 1 MID2 1 MLH1 1 MNX1 1 MPI 1 MPZ 1 MRAP 1 MRPS16 1 MSH6 1 MTM1 1 MTMR2 1 MTPAP 1 MYH3 1 MYMK 1 MYO7A 1 MYT1 1 NAGS 1 NDN 1 NEGR1 1 NGF 1 NHEJ1 1 NHLRC1 1 NIN 1 NLGN1 1 NLGN4X 1 NOP10 1 NOTCH3 1 NRXN2 1 NTNG1 1 NUP62 1 ORC1 1 ORC4 1 ORC6 1 OTUD7A 2 PANK2 1 PAX2 1 PAX3 1 PAX7 1 PCBD1 1 PCDH10 1 PCDH15 1 PCDH9 1 PCLO 1 PDE11A 1 PDGFB 1 PHKA2 1 PHKG2 1 PIGF 2 PIK3R1 1 PINK1 1 PIP5K1B 1 PNP 1 POC1A 1 POLD1 1 POLD2 1 PON3 1 POP1 1 POU1F1 1 PPM1K 1 PPOX 1 PRDM8 1 PREPL 1 PRF1 1 PRICKLE1 1 PRKDC 1 PRKN 1 PRKRA 1 PRRX1 1 PRX 1 PYGL 1 RAB27A 1 RAB40AL 1 RALGAPB 1 RANBP2 1 RAPSN 1 RASA1 2 RAX 1 RBFOX1 1 RBL2 1 RBM28 1 RBM8A 1 RBPJ 1 RECQL4 1 RET 1 RFX6 1 RIMS1 1 RIN2 1 RING1 1 RNF135 2 RPL11 1 RPS19 1 RPS28 1 RUBCN 1 SALL1 1 SAMD9L 1 SBDS 1 SCN11A 1 SCN9A 1 SCO1 1 SECISBP2 1 SELENOI 1 SELENON 1 SF3B4 1 SGCA 1 SH3TC2 1 SHANK1 1 SLC12A1 1 SLC19A2 1 SLC1A3 1 SLC20A2 1 SLC22A5 1 SLC25A13 1 SLC25A19 1 SLC25A20 1 SLC25A24 1 SLC25A4 2 SLC29A3 1 SLC2A10 1 SLC39A4 1 SLC44A1 2 SLC5A2 1 SLC6A4 1 SLC7A7 1 SLC9A9 1 SMCHD1 1 SMG6 1 SNIP1 1 SNRPA 1 SNRPE 2 SOBP 1 SOST 1 SP7 1 SPAST 1 SPEG 1 SPG7 2 SPINK5 1 SPRTN 1 SPTLC1 1 SRPX2 1 ST7 1 STAC3 1 STAT5B 1 STK3 1 STT3B 1 STX11 1 SYT14 1 TAF8 1 TDGF1 2 TECR 1 TFAP2A 1 TFAP2B 1 TFG 1 TG 1 TGFBR1 1 TGFBR2 1 THAP1 1 TIMM8A 1 TMEM260 1 TP63 1 TPH2 1 TPK1 1 TRAPPC6A 1 TREM2 1 TRHR 1 TRIM32 1 TRIM37 1 TSEN34 1 TSHR 1 TTC21B 1 TTR 1 TUBA8 1 TWNK 1 TXNL4A 1 UBE2U 1 UBR4 2 UCHL1 1 UGT1A1 1 UNC13A 1 UNC13D 1 UQCRB 1 UQCRC2 1 UQCRQ 1 UROC1 1 VAMP1 1 VANGL1 1 VPS45 1 WASHC5 1 WDR13 1 WDR19 1 WDR34 1 WIPI2 1 WRAP53 1 XIST 1 XPNPEP3 1 ZCCHC12 1 ZDHHC15 1 ZFP57 1 ZMYM3 1 ZNF41 1 ZNF423 1 ZNF507 1 ZNF674 1 ZNF804A 1 ZNF81 2 ZNHIT6 1 DIP2B 2 DMPK 2 Add a gene STRs in panel DM1 1 FRAXE 1 FRA12A 1 Add a STR Regions in panel Add a Region Intellectual disability syndromic and non-syndromic Gene: HMGB1 Green List (high evidence) You reviewed HMGB1 (high mobility group box 1) EnsemblGeneIds (GRCh38): ENSG00000189403 EnsemblGeneIds (GRCh37): ENSG00000189403 OMIM: 163905, Gene2Phenotype HMGB1 is in 3 panels Reviews (1) Details History Review feedback Review gene Rating: Rating Mode of Inheritance: Mode of Inheritance Mode of pathogenicity: Mode of pathogenicity Publications (PMID: 1234; 4321): Publications (PMID: 1234; 4321) Phenotypes (separate using a semi-colon -; ): Phenotypes (separate using a semi-colon -; ) Current diagnostic: Current diagnostic Comments: Comments 1 review Your review Chirag Patel (Genetic Health Queensland) Green List (high evidence) 13q12.3 microdeletion syndrome is a rare cause of syndromic ID. Previous studies identified four genes within the ~300 Kb minimal critical region including two candidate protein coding genes: KATNAL1 and HMGB1. Uguen et al. (2021) report 6 patients with LOF variants involving HMGB1 with features similar to 13q12.3 microdeletion syndrome (i.e. developmental delay, language delay, microcephaly, obesity and dysmorphic features). In silico analyses suggest that HMGB1 is likely to be intolerant to LOF, and previous in vitro data are in line with the role of HMGB1 in neurodevelopment. They suggest that haploinsufficiency of the HMGB1 gene may play a critical role in the pathogenesis of the 13q12.3 microdeletion syndrome. Sources: Literature Created: 17 Sep 2021, 4:56 a.m. Mode of inheritance MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Phenotypes Developmental delay and microcephaly, no OMIM # to Developmental delay and microcephaly, no OMIM # | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.49 | HMGB1 |
Chirag Patel gene: HMGB1 was added gene: HMGB1 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: HMGB1 was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: HMGB1 were set to PMID: 34164801 Phenotypes for gene: HMGB1 were set to 0 ALDH5A1 1 ALDH7A1 0 ALG1 0 ALG11 1 ALG12 1 ALG13 1 ALG14 1 ALG3 1 ALG6 1 ALG8 1 ALG9 1 ALKBH8 1 ALMS1 0 AMER1 0 AMPD2 0 AMT 0 ANK2 2 ANKRD11 0 ANKRD17 2 AP1B1 1 AP1G1 1 AP1S1 0 AP1S2 0 AP2M1 1 AP3B1 0 AP3B2 1 AP4B1 1 AP4E1 1 AP4M1 1 AP4S1 1 APC2 1 APOPT1 1 ARCN1 1 ARF1 1 ARFGEF2 0 ARG1 0 ARHGEF9 1 ARID1A 1 ARID1B 1 ARID2 2 ARL13B 1 ARL6 1 ARMC9 1 ARSA 0 ARSB 1 ARSE 1 ARV1 0 ARX 0 ASAH1 0 ASH1L 1 ASL 1 ASNS 1 ASPA 0 ASPM 1 ASS1 0 ASTN1 1 ASXL1 0 ASXL2 0 ASXL3 1 ATAD1 1 ATAD3A 1 ATG7 1 ATIC 1 ATM 0 ATN1 1 ATP13A2 0 ATP1A1 1 ATP1A2 1 ATP1A3 2 ATP6AP1 1 ATP6AP2 0 ATP6V0A2 0 ATP6V1A 1 ATP6V1B2 0 ATP7A 0 ATP8A2 1 ATR 0 ATRX 0 AUH 0 AUTS2 1 B3GALNT2 1 B3GLCT 0 B4GALNT1 0 B4GALT1 1 B4GALT7 1 B9D2 1 BAZ2B 1 BBS1 0 BBS10 0 BBS12 0 BBS2 0 BBS4 1 BBS5 1 BBS7 1 BBS9 1 BCAP31 0 BCAS3 1 BCKDHA 0 BCKDHB 0 BCKDK 0 BCL11A 0 BCL11B 1 BCOR 1 BCORL1 1 BCS1L 0 BICRA 3 BLM 0 BMP4 0 BOLA3 0 BPTF 1 BRAF 0 BRAT1 1 BRD4 2 BRF1 1 BRIP1 1 BRPF1 1 BRSK2 1 BRWD3 0 BSCL2 0 BSND 1 BTD 0 BUB1B 0 C12orf4 0 C12orf57 0 C12orf65 0 C2CD3 1 C2orf69 1 C5orf42 1 CA2 1 CA8 1 CACNA1A 0 CACNA1B 1 CACNA1C 0 CACNA1D 1 CACNA1E 1 CACNA1G 2 CACNA1I 1 CACNA2D2 1 CAD 1 CAMK2A 0 CAMK2B 1 CAMK4 1 CAMTA1 2 CAPN15 1 CARS 1 CARS2 1 CASK 0 CBL 0 CBS 0 CBY1 1 CC2D1A 1 CC2D2A 0 CCBE1 1 CCDC22 0 CCDC47 1 CCDC88A 1 CCDC88C 2 CCND2 0 CDC42 0 CDC42BPB 1 CDH11 2 CDH15 0 CDH2 1 CDK10 0 CDK13 1 CDK19 1 CDK5RAP2 1 CDK8 1 CDKL5 0 CDON 0 CELF2 1 CENPF 0 CENPJ 0 CEP104 1 CEP120 1 CEP135 1 CEP152 1 CEP164 1 CEP290 0 CEP41 0 CEP55 1 CEP57 1 CEP83 1 CEP85L 1 CHAMP1 0 CHD1 1 CHD2 0 CHD3 1 CHD4 1 CHD5 1 CHD7 0 CHD8 0 CHKB 0 CHMP1A 1 CIC 0 CIT 0 CKAP2L 0 CLCN3 1 CLCN4 1 CLCN6 1 CLCNKB 1 CLN3 0 CLN5 1 CLN6 0 CLN8 0 CLP1 1 CLPB 1 CLTC 1 CNKSR2 0 CNNM2 0 CNOT1 3 CNOT2 1 CNOT3 2 CNPY3 1 CNTNAP1 1 CNTNAP2 0 COASY 1 COG1 0 COG4 1 COG5 1 COG6 1 COG7 0 COG8 1 COL4A1 0 COL4A2 0 COL4A3BP 0 COLEC11 0 COPB2 2 COQ4 0 COQ8A 0 COX10 1 COX15 0 CPS1 0 CRADD 1 CRB2 0 CREBBP 1 CSDE1 1 CSNK1G1 2 CSNK2A1 0 CSNK2B 0 CSPP1 1 CSTB 0 CTBP1 1 CTCF 1 CTDP1 0 CTNNA2 1 CTNNB1 0 CTSA 0 CTSD 0 CTU2 1 CUL3 2 CUL4B 0 CUX1 1 CUX2 1 CWC27 0 CWF19L1 1 CXorf56 1 CYB5R3 0 CYC1 0 CYFIP2 1 D2HGDH 0 DAG1 0 DARS 1 DARS2 0 DBT 0 DCAF17 0 DCHS1 0 DCPS 1 DCX 0 DDB1 2 DDC 0 DDHD2 0 DDX11 1 DDX23 2 DDX3X 0 DDX59 1 DDX6 1 DEAF1 1 DEGS1 1 DENND5A 1 DEPDC5 0 DHCR24 0 DHCR7 0 DHDDS 1 DHFR 1 DHPS 1 DHTKD1 0 DHX30 1 DHX37 2 DIAPH1 0 DIS3L2 0 DKC1 0 DLD 0 DLG3 1 DLG4 2 DLL1 1 DMD 0 DMXL2 1 DNAJC12 1 DNAJC19 0 DNM1 1 DNM1L 1 DNMT3A 1 DNMT3B 0 DOCK3 1 DOCK6 1 DOCK7 1 DOCK8 0 DOLK 1 DPAGT1 1 DPF2 0 DPH1 1 DPM1 0 DPM2 1 DPYD 1 DPYS 1 DPYSL5 1 DYM 1 DYNC1H1 0 DYNC1I2 1 DYRK1A 1 EARS2 1 EBF3 1 EBP 1 EDEM3 2 EED 1 EEF1A2 1 EEF2 1 EFTUD2 1 EHMT1 1 EIF2AK2 2 EIF2AK3 0 EIF2S3 1 EIF3F 1 EIF4A3 1 EIF5A 1 ELAC2 0 ELOVL4 0 ELP2 0 EMC1 1 EMC10 2 EML1 1 EP300 0 EPG5 1 ERCC1 1 ERCC2 0 ERCC3 0 ERCC5 1 ERCC6 0 ERCC6L2 0 ERCC8 0 ERLIN2 1 ESCO2 0 ETFA 1 ETFB 1 ETFDH 1 ETHE1 0 EXOC7 1 EXOSC3 0 EXOSC8 1 EXT2 1 EXTL3 1 EZH2 1 FAM111A 0 FAM126A 0 FAM20C 0 FAM50A 1 FAR1 1 FARS2 1 FARSA 1 FARSB 1 FAT4 0 FBRSL1 1 FBXL3 2 FBXL4 0 FBXO11 1 FBXO28 1 FBXO31 2 FBXW11 2 FBXW7 1 FDFT1 1 FGD1 1 FGF12 0 FGF13 1 FGF14 1 FGFR1 1 FGFR3 1 FH 0 FIG4 0 FITM2 1 FKRP 0 FKTN 0 FLNA 0 FLVCR2 0 FMN2 0 FMR1 0 FOLR1 1 FOXG1 0 FOXP1 2 FOXP2 1 FOXRED1 0 FRAS1 1 FRMPD4 1 FRRS1L 1 FTCD 1 FTSJ1 0 FUCA1 0 FUT8 1 GABBR2 1 GABRA1 1 GABRA2 1 GABRA5 1 GABRB2 0 GABRB3 1 GABRG2 1 GAD1 1 GALC 0 GALE 0 GALNT2 1 GALT 1 GAMT 0 GATA6 1 GATAD2B 1 GATM 1 GCDH 0 GCH1 0 GDI1 0 GEMIN5 1 GFAP 0 GFER 1 GFM1 0 GJC2 0 GK 0 GLB1 0 GLDC 0 GLI2 0 GLI3 0 GLIS3 1 GLS 1 GLUL 0 GLYCTK 0 GM2A 0 GMPPA 0 GMPPB 0 GNAI1 2 GNAO1 1 GNAS 1 GNB1 1 GNB2 3 GNB5 1 GNE 1 GNPAT 0 GNPTAB 0 GNPTG 1 GNS 0 GOLGA2 2 GOT2 1 GPAA1 1 GPC3 0 GPC4 1 GPT2 1 GRIA1 1 GRIA2 2 GRIA3 1 GRIA4 0 GRID2 0 GRIK2 1 GRIN1 1 GRIN2A 1 GRIN2B 1 GRIN2D 1 GRM1 0 GRM7 1 GSS 1 GTF2H5 0 GTF3C3 1 GTPBP2 1 GTPBP3 0 GUSB 1 H3F3A 1 H3F3B 1 HACE1 1 HADHA 0 HADHB 1 HCCS 0 HCFC1 0 HCN1 0 HDAC4 2 HDAC8 1 HECW2 2 HEPACAM 0 HERC1 0 HERC2 2 HESX1 0 HEXA 0 HEXB 0 HGSNAT 1 HIBCH 0 HID1 1 HIRA 1 HIST1H1E 1 HIST1H4C 2 HIVEP2 1 HK1 2 HLCS 0 HMGB1 1 HMGCL 0 HNMT 1 HNRNPH1 1 HNRNPH2 0 HNRNPK 0 HNRNPR 1 HNRNPU 1 HOXA1 0 HPD 0 HPDL 2 HPRT1 0 HRAS 1 HS2ST1 3 HSD17B10 0 HSD17B4 1 HSPD1 0 HSPG2 1 HTRA2 0 HUWE1 1 IARS 1 IBA57 1 IDH2 0 IDS 0 IDUA 0 IER3IP1 1 IFIH1 0 IFT172 0 IFT27 1 IFT74 1 IGF1 1 IGF1R 1 IKBKG 0 IL1RAPL1 0 IMPDH2 2 INPP5E 1 INPP5K 0 INTS1 1 IQSEC1 1 IQSEC2 1 IREB2 1 IRF2BPL 1 ISCA1 1 ISCA2 1 ISPD 0 ITPA 0 ITPR1 0 IVD 0 JAM3 1 JARID2 1 JMJD1C 2 KANSL1 1 KARS 1 KAT5 2 KAT6A 0 KAT6B 0 KAT8 1 KATNB1 1 KCNA2 1 KCNB1 1 KCNC1 0 KCNH1 1 KCNJ10 0 KCNJ11 0 KCNJ6 1 KCNK4 1 KCNK9 1 KCNMA1 1 KCNN2 1 KCNN3 1 KCNQ2 0 KCNQ3 1 KCNQ5 1 KCNT1 0 KCNT2 1 KCTD3 0 KCTD7 0 KDM1A 1 KDM3B 2 KDM4B 2 KDM5B 1 KDM5C 1 KDM6A 0 KDM6B 1 KIAA0586 0 KIAA1109 0 KIDINS220 1 KIF11 2 KIF14 1 KIF1A 2 KIF1BP 1 KIF21B 1 KIF2A 1 KIF5A 0 KIF5C 1 KIF7 0 KLF7 1 KLHL7 0 KMT2A 1 KMT2B 1 KMT2C 1 KMT2D 2 KMT2E 1 KMT5B 1 KNL1 1 KPTN 1 KRAS 0 L1CAM 0 L2HGDH 0 LAMA1 0 LAMA2 1 LAMB1 1 LAMB2 1 LAMC3 0 LAMP2 0 LARGE1 0 LARP7 1 LARS 2 LARS2 0 LIAS 1 LIG4 0 LINGO4 1 LINS1 0 LIPT1 1 LMBRD1 1 LMBRD2 2 LMNB1 2 LMNB2 2 LONP1 0 LRP2 0 LRPPRC 0 LSS 1 LTBP1 1 LYRM7 1 LZTFL1 1 LZTR1 1 MAB21L1 2 MAB21L2 1 MACF1 1 MADD 3 MAF 0 MAGEL2 1 MAN1B1 1 MAN2B1 1 MANBA 1 MAOA 1 MAP1B 1 MAP2K1 0 MAP2K2 0 MAPK1 2 MAPK8IP3 2 MAPKAPK5 1 MAPRE2 1 MASP1 1 MAST1 1 MAST3 1 MAT1A 0 MBD5 1 MBOAT7 0 MBTPS2 0 MCCC1 0 MCCC2 0 MCM3AP 1 MCOLN1 1 MCPH1 1 MDH2 0 MECP2 1 MED12 0 MED12L 1 MED13 1 MED13L 0 MED17 1 MED23 0 MED25 1 MED27 2 MEF2C 1 MEGF8 2 MEIS2 0 METTL23 2 METTL5 1 MFF 0 MFSD2A 1 MFSD8 1 MGAT2 1 MICU1 1 MID1 0 MIR17HG 2 MKKS 0 MKS1 0 MLC1 0 MLYCD 1 MMAA 0 MMAB 0 MMACHC 0 MMADHC 0 MN1 2 MOCS1 1 MOCS2 0 MOGS 1 MORC2 2 MPDU1 1 MPDZ 1 MPLKIP 1 MPP5 1 MPV17 1 MRPS22 0 MRPS34 1 MSL3 1 MSMO1 1 MTFMT 0 MTHFR 0 MTHFS 1 MTO1 1 MTOR 0 MTR 1 MTRR 1 MUT 0 MVK 0 MYCN 0 MYO5A 0 MYT1L 2 NAA10 0 NAA15 1 NACC1 0 NAGA 0 NAGLU 0 NALCN 0 NANS 0 NARS 2 NBEA 1 NCAPD2 2 NCAPG2 1 NCDN 2 NCKAP1 1 NDE1 1 NDP 0 NDST1 0 NDUFA1 0 NDUFA2 1 NDUFAF1 1 NDUFS1 1 NDUFS4 1 NDUFS7 0 NDUFS8 0 NDUFV1 0 NEDD4L 1 NEMF 2 NEU1 0 NEUROD2 1 NEXMIF 1 NF1 0 NFASC 1 NFIA 0 NFIB 1 NFIX 0 NFU1 1 NGLY1 0 NHS 0 NIPBL 1 NKAP 1 NKX2-1 0 NLGN3 0 NONO 0 NOVA2 1 NPC1 0 NPC2 0 NPHP1 0 NPHP3 1 NR2F1 1 NR4A2 2 NRAS 0 NRROS 1 NRXN1 0 NSD1 0 NSD2 1 NSDHL 1 NSUN2 0 NT5C2 1 NTNG2 1 NTRK1 0 NTRK2 1 NUBPL 0 NUDT2 1 NUP188 1 NUP214 2 NUS1 1 OCLN 0 OCRL 0 ODC1 1 OFD1 0 OGT 1 OPA3 0 OPHN1 0 OSGEP 1 OTC 0 OTUD5 2 OTUD6B 0 OTX2 0 OXR1 1 P4HTM 1 PACS1 1 PACS2 1 PAFAH1B1 1 PAH 0 PAK1 1 PAK3 1 PAM16 1 PARN 0 PARP6 1 PAX6 0 PAX8 0 PBX1 0 PC 0 PCCA 0 PCCB 0 PCDH12 1 PCDH19 0 PCDHGC4 1 PCGF2 1 PCNT 0 PCYT2 1 PDE10A 1 PDE4D 0 PDE6D 1 PDGFRB 0 PDHA1 0 PDHB 1 PDHX 0 PDP1 1 PDSS1 1 PDSS2 0 PEPD 0 PET100 1 PEX1 0 PEX10 0 PEX11B 0 PEX12 0 PEX13 0 PEX14 0 PEX16 0 PEX19 0 PEX2 0 PEX26 0 PEX3 0 PEX5 0 PEX6 0 PEX7 0 PGAP1 0 PGAP2 1 PGAP3 1 PGK1 1 PGM2L1 1 PGM3 1 PHACTR1 1 PHF21A 2 PHF6 0 PHF8 1 PHGDH 0 PHIP 1 PI4KA 1 PIBF1 2 PIDD1 1 PIGA 1 PIGB 2 PIGC 1 PIGG 1 PIGH 1 PIGK 1 PIGL 1 PIGN 1 PIGO 1 PIGP 2 PIGQ 1 PIGS 1 PIGT 1 PIGU 1 PIGV 1 PIGW 0 PIK3C2A 1 PIK3CA 0 PIK3R2 1 PISD 1 PITRM1 1 PLA2G6 0 PLAA 0 PLCB1 1 PLK4 1 PLP1 0 PLPBP 1 PMM2 0 PMPCA 1 PMPCB 1 PNKP 1 PNPLA6 0 PNPT1 1 POGZ 1 POLA1 1 POLG 0 POLR1C 1 POLR2A 1 POLR3A 0 POLR3B 0 POLRMT 1 POMGNT1 0 POMGNT2 0 POMK 1 POMT1 0 POMT2 0 PORCN 0 POU3F3 1 PPIL1 1 PPM1D 1 PPP1CB 1 PPP1R12A 1 PPP1R15B 0 PPP1R21 1 PPP2CA 1 PPP2R1A 1 PPP2R5D 1 PPP3CA 0 PPT1 0 PQBP1 1 PRICKLE2 1 PRKAR1A 1 PRKAR1B 1 PRMT7 0 PRODH 0 PRPS1 0 PRR12 1 PRSS12 0 PRUNE1 1 PSAP 1 PSMD12 0 PSPH 0 PTCH1 0 PTCHD1 0 PTDSS1 0 PTEN 0 PTF1A 0 PTPN11 0 PTPN23 1 PTPN4 1 PTRHD1 1 PTS 0 PUF60 1 PUM1 1 PURA 1 PUS1 0 PUS3 1 PUS7 1 PYCR1 0 PYCR2 0 QARS 1 QDPR 0 QRICH1 1 RAB11B 1 RAB18 0 RAB23 0 RAB39B 0 RAB3GAP1 1 RAB3GAP2 0 RAC1 1 RAC3 1 RAD21 1 RAF1 0 RAI1 1 RALA 1 RALGAPA1 1 RAP1B 2 RARB 1 RARS 1 RARS2 0 RBBP8 0 RBM10 1 RELN 0 RERE 1 RFT1 1 RFX3 1 RFX4 1 RFX7 1 RHEB 1 RHOBTB2 1 RIT1 0 RLIM 1 RMND1 0 RNASEH2A 0 RNASEH2B 0 RNASEH2C 0 RNASET2 0 RNF125 0 RNF13 1 RNF220 1 RNU4ATAC 1 RNU7-1 2 ROGDI 1 ROR2 0 RORA 1 RPGRIP1L 0 RPIA 1 RPL10 1 RPS6KA3 0 RRM2B 0 RSRC1 1 RTEL1 0 RTN4IP1 1 RTTN 1 SAMD9 0 SAMHD1 0 SARS2 1 SATB1 2 SATB2 1 SBF1 1 SC5D 0 SCAF4 1 SCAMP5 2 SCAPER 1 SCN1A 1 SCN1B 1 SCN2A 0 SCN3A 1 SCN8A 0 SCO2 0 SDCCAG8 1 SDHA 0 SDHAF1 1 SEPSECS 1 SERAC1 0 SET 0 SETBP1 0 SETD1A 1 SETD1B 1 SETD2 1 SETD5 1 SFXN4 1 SGPL1 0 SGSH 1 SHANK2 0 SHANK3 1 SHH 0 SHMT2 2 SHOC2 1 SIAH1 1 SIK1 0 SIL1 1 SIN3A 0 SIN3B 1 SIX3 0 SKI 0 SLC12A2 3 SLC12A5 0 SLC12A6 0 SLC13A5 1 SLC16A2 1 SLC17A5 0 SLC18A2 1 SLC19A3 0 SLC1A1 1 SLC1A2 1 SLC1A4 1 SLC25A1 0 SLC25A12 0 SLC25A15 0 SLC25A22 0 SLC2A1 0 SLC33A1 0 SLC35A1 0 SLC35A2 0 SLC35C1 0 SLC39A14 0 SLC39A8 1 SLC46A1 1 SLC4A4 0 SLC5A6 1 SLC6A1 1 SLC6A17 0 SLC6A19 0 SLC6A3 0 SLC6A8 0 SLC6A9 1 SLC9A6 1 SLX4 0 SMAD4 0 SMARCA2 1 SMARCA4 0 SMARCA5 1 SMARCB1 0 SMARCC2 1 SMARCD1 1 SMARCE1 0 SMC1A 0 SMC3 0 SMG8 2 SMG9 1 SMOC1 1 SMPD1 1 SMPD4 1 SMS 0 SNAP25 1 SNAP29 0 SNRPB 1 SNX14 0 SNX27 1 SON 1 SOS1 1 SOS2 1 SOX10 0 SOX11 0 SOX2 1 SOX4 1 SOX5 1 SOX6 2 SOX9 0 SPART 1 SPATA5 1 SPECC1L 0 SPEN 2 SPG11 1 SPOP 1 SPR 0 SPRED1 1 SPTAN1 1 SPTBN1 1 SPTBN2 0 SPTBN4 2 SRCAP 2 SRD5A3 0 SSR4 0 ST3GAL3 0 ST3GAL5 2 STAG1 0 STAG2 1 STAMBP 1 STIL 1 STRA6 0 STRADA 1 STT3A 2 STX1B 0 STXBP1 0 SUCLA2 1 SUCLG1 0 SUFU 1 SUMF1 1 SUOX 0 SUPT16H 1 SURF1 0 SUZ12 2 SVBP 2 SYN1 0 SYNCRIP 2 SYNGAP1 1 SYNJ1 0 SYP 0 SYT1 2 SZT2 0 TAF1 1 TAF2 2 TAF6 1 TANC2 2 TANGO2 0 TAOK1 1 TASP1 1 TAT 0 TAZ 0 TBC1D20 1 TBC1D23 0 TBC1D24 0 TBCD 1 TBCE 0 TBCK 0 TBL1XR1 0 TBR1 1 TBX1 1 TCF20 1 TCF4 0 TCF7L2 2 TCN2 1 TCTN2 0 TCTN3 1 TDP2 1 TECPR2 1 TELO2 1 TENM3 1 TERT 2 TET3 1 TFE3 2 TGIF1 1 TH 0 THOC2 1 THOC6 0 THRA 0 TIMM50 1 TINF2 1 TLK2 1 TMCO1 0 TMEM106B 1 TMEM165 1 TMEM216 0 TMEM222 2 TMEM237 1 TMEM240 0 TMEM5 0 TMEM67 1 TMEM70 0 TMEM94 1 TMTC3 1 TMX2 1 TNPO2 1 TNR 1 TNRC6B 2 TOE1 1 TOGARAM1 1 TP73 1 TPP1 1 TPP2 1 TRAF7 1 TRAIP 1 TRAK1 1 TRAPPC11 1 TRAPPC12 1 TRAPPC4 1 TRAPPC6B 1 TRAPPC9 2 TREX1 0 TRIM8 1 TRIO 1 TRIP12 1 TRIT1 1 TRMT1 1 TRMT10A 1 TRNT1 1 TRPM3 1 TRRAP 1 TSC1 0 TSC2 0 TSEN15 1 TSEN2 0 TSEN54 0 TSFM 0 TSHB 0 TSPAN7 0 TSPOAP1 1 TTC19 0 TTC37 0 TTC5 2 TTC8 1 TTI2 1 TUBA1A 0 TUBB 1 TUBB2A 1 TUBB2B 0 TUBB3 0 TUBB4A 0 TUBG1 0 TUBGCP2 1 TUBGCP6 1 TUSC3 1 TWIST1 0 UBA5 0 UBE2A 1 UBE3A 0 UBE3B 1 UBE4A 1 UBR1 1 UBR7 1 UBTF 1 UFC1 1 UFM1 1 UFSP2 2 UGDH 1 UGP2 1 UMPS 1 UNC80 1 UPB1 2 UPF3B 2 USP18 1 USP7 2 USP9X 1 VAMP2 2 VARS 1 VARS2 1 VIPAS39 1 VLDLR 0 VPS11 1 VPS13B 0 VPS33B 1 VPS41 1 VPS4A 3 VPS53 0 VRK1 0 WAC 1 WARS2 1 WASF1 2 WASHC4 3 WDFY3 1 WDPCP 1 WDR11 2 WDR26 1 WDR37 1 WDR4 2 WDR45 0 WDR45B 1 WDR62 1 WDR73 0 WDR81 1 WNT1 1 WNT5A 2 WWOX 0 XPA 2 XRCC4 0 XYLT1 2 YARS 1 YIF1B 2 YWHAG 1 YY1 0 ZBTB18 0 ZBTB20 0 ZBTB24 1 ZC4H2 0 ZDHHC9 0 ZEB2 1 ZFHX4 1 ZFYVE26 0 ZIC1 1 ZIC2 0 ZMIZ1 2 ZMYM2 2 ZMYND11 1 ZNF142 1 ZNF148 1 ZNF292 2 ZNF335 1 ZNF462 2 ZNF526 1 ZNF699 1 ZNF711 1 ZSWIM6 1 AASS 1 ACADSB 1 ACAT1 1 ADAM22 1 AKAP6 1 ALDOA 1 ALX1 1 ALX3 1 ALX4 1 AP2S1 1 ARF3 2 ARHGAP31 1 ARHGAP35 1 ARNT2 1 ATP6V0A1 1 ATP9A 1 ATXN2L 1 B3GALT6 1 B9D1 1 BBIP1 1 C16orf62 1 C8orf37 1 CACNB4 1 CAPZA2 1 CCDC174 1 CCDC78 1 CD96 1 CDK16 1 CDK6 1 CDKN1C 1 CEP63 1 CEP89 1 CHRM1 1 CHST14 1 CLCN2 1 CNKSR1 1 COPB1 1 COQ2 1 COQ9 1 COX14 1 COX20 1 COX7B 1 CPE 1 CRBN 1 CTC1 1 CTNND1 1 CTNND2 1 DDOST 1 DHX32 1 DLAT 1 DPH2 1 DPP6 2 DSCAM 1 EEF1B2 1 EEF1D 1 EIF2A 1 EMG1 1 EMX2 1 EPHA7 1 ERGIC3 2 EXOC2 2 EXOSC2 1 FANCB 1 FANCD2 1 FANCG 1 FASTKD2 1 FEM1B 1 FGFR2 1 FIBP 1 FOXP4 1 FRMD4A 1 FRY 1 FTO 1 FUK 1 GBA 1 GEMIN4 1 GIGYF1 1 GMNN 1 GNAI2 1 GNAQ 1 GORAB 1 GPHN 1 GSX2 1 GTF2E2 2 HARS 2 HAX1 1 HEATR5B 1 HIST1H4J 1 HNRNPD 1 HSPA9 1 HTT 1 HYLS1 1 ICE1 1 IMPA1 1 INPP4A 1 IQSEC3 2 ITCH 1 ITFG2 2 ITGA7 1 JAKMIP1 1 KCNJ1 1 KLHL15 1 LAS1L 1 LINGO1 1 LIPT2 1 LMAN2L 1 LNPK 1 LRRC32 1 LYST 1 MAGT1 1 MMGT1 1 MRPL3 2 MSL2 1 NBN 1 NDUFA10 1 NDUFA11 1 NDUFA9 1 NDUFAF2 1 NDUFAF3 1 NDUFAF4 1 NDUFAF5 1 NDUFAF6 1 NDUFB3 1 NDUFB9 1 NDUFS2 1 NDUFS3 1 NDUFS6 1 NDUFV2 1 NECAP1 1 NHP2 1 NMNAT1 1 NR2F2 1 NSF 1 PAX1 1 PDCD6IP 1 PDE2A 1 PHC1 1 PIEZO2 1 PIGY 1 PJA1 1 PLCH1 1 PLEKHG2 1 PLOD3 1 PLXNA2 1 PPP2R5C 1 PRKACB 2 PRKD1 2 PRRT2 1 PSAT1 1 PSMB1 1 PSMC3 1 PSMC5 1 PTRH2 1 RAB11A 1 RAB14 1 RAP1GDS1 1 RIC1 1 RMRP 1 RNF113A 1 RNF2 1 RPS23 1 RSPRY1 1 RUSC2 1 SACS 1 SEC31A 1 SEMA3E 1 SEMA5A 1 SHROOM4 1 SLC2A2 1 SLC35A3 2 SLC45A1 1 SLC5A5 1 SLC9A7 1 SMARCD2 1 SNORD118 1 SNRPN 1 SOX3 2 SRRM2 1 STN1 1 TACO1 1 TAF13 1 TAF1C 1 TARS 1 TBC1D2B 2 TBC1D7 1 TGFB1 1 THRB 1 TKFC 1 TKT 2 TMEM231 1 TMLHE 1 TNIK 1 TOP2B 1 TRAPPC2L 1 TRIP13 1 TTI1 2 TUBGCP4 1 TUFM 1 U2AF2 1 UPF1 1 UQCC2 1 USP27X 1 VPS37A 1 VPS50 1 VPS51 1 WFS1 2 YAP1 1 ZBTB11 1 ZBTB16 1 ZC3H14 4 ZFHX3 2 ZNF407 2 ZNF668 1 ABCC6 2 ABCG5 1 ACOX2 1 ACTA1 1 ADA2 1 ADAMTSL2 1 ADCY5 1 ADGRB3 1 ADGRG6 2 ADRA2B 1 AFG3L2 1 AGGF1 1 AGK 1 AGL 1 AGO3 1 AGPS 1 AGT 1 AGTR2 1 AKR1C2 1 ALDOB 1 ALG2 1 ALS2 1 ANK3 1 ANKH 1 APTX 1 AR 1 ARHGEF6 1 ASMT 1 ATL1 1 ATP10A 1 ATP2A2 1 ATP2B3 1 ATP2C2 1 ATXN10 1 AVP 1 AVPR1A 1 AVPR2 1 B3GAT3 1 BDNF 1 BICD2 1 BIN1 1 BMPER 1 C19orf12 1 C3orf58 1 CA5A 1 CACNG2 1 CANT1 1 CCDC8 1 CDC6 1 CDK5R1 1 CDT1 1 CFH 1 CFHR1 1 CFHR3 1 CHRNA4 1 CISD2 1 CLCNKA 1 CLIC2 1 CLIP2 1 CLPP 1 CMAS 1 CNTN3 1 CNTN4 1 CNTN6 1 CNTNAP5 1 COA3 1 COL18A1 1 COL1A2 1 COLEC10 1 COQ5 1 CORO1A 1 COX4I2 1 COX6B1 1 CP 1 CPA6 1 CRKL 1 CRLF1 1 CRTAP 1 CTSF 1 CUBN 1 CYFIP1 1 CYP27A1 1 CYP2U1 1 DDR2 1 DISP1 1 DLGAP2 1 DLK1 2 DNAJA1 1 DNAJC3 1 DNAJC6 1 DOCK4 1 DOK7 1 DPM3 1 DPP10 1 DSCR3 1 DSE 1 DTYMK 1 DUOXA2 1 DYNC2H1 1 EDC3 1 EDNRB 1 EFNB1 1 EFNB2 1 EIF2AK1 1 EIF2B1 1 EIF2B2 1 EIF2B3 1 EIF2B4 1 EIF2B5 1 ELMOD1 1 EOGT 1 EOMES 1 EPB41L1 1 EPM2A 1 ERCC4 1 ERF 1 ERMARD 1 ETS1 1 EVC 1 EVC2 1 FA2H 1 FAAH2 1 FAM160B1 1 FBLN5 1 FBN1 1 FDXR 1 FGF3 1 FLNB 1 FLVCR1 1 FTL 1 FZD3 1 G6PC3 1 GABRG1 1 GAN 1 GATA1 1 GBA2 1 GBE1 1 GCK 1 GCSH 1 GHR 1 GJA1 1 GJB1 1 GLRA1 1 GLUD1 1 GNA14 1 GOSR2 1 GPSM2 1 GRPR 1 GSPT2 1 GTF2I 1 GTF2IRD1 1 GYS2 1 H19 1 HADH 1 HAL 1 HARS2 1 HOXD10 1 IFT140 1 IGBP1 1 IGF2 1 IMMP2L 1 INS 1 INSR 1 INTS8 1 IRX5 1 IYD 1 JAG1 1 JPH3 1 KANK1 1 KATNAL2 1 KCNC3 1 KCND3 1 KCTD13 1 KIF16B 1 KIF1B 1 KIF21A 1 KIF4A 1 KIRREL3 1 KLF8 1 KLLN 1 KYNU 1 LBR 1 LGI4 1 LHX3 1 LMNA 1 LRP5 1 LSM1 1 LSM11 2 MACROD2 1 MAP4K4 2 MARS2 2 MCM4 1 MEPCE 1 MET 1 METAP1 1 MFN2 1 MGME1 1 MGP 1 MID2 1 MLH1 1 MNX1 1 MPI 1 MPZ 1 MRAP 1 MRPS16 1 MSH6 1 MTM1 1 MTMR2 1 MTPAP 1 MYH3 1 MYMK 1 MYO7A 1 MYT1 1 NAGS 1 NDN 1 NEGR1 1 NGF 1 NHEJ1 1 NHLRC1 1 NIN 1 NLGN1 1 NLGN4X 1 NOP10 1 NOTCH3 1 NRXN2 1 NTNG1 1 NUP62 1 ORC1 1 ORC4 1 ORC6 1 OTUD7A 2 PANK2 1 PAX2 1 PAX3 1 PAX7 1 PCBD1 1 PCDH10 1 PCDH15 1 PCDH9 1 PCLO 1 PDE11A 1 PDGFB 1 PHKA2 1 PHKG2 1 PIGF 2 PIK3R1 1 PINK1 1 PIP5K1B 1 PNP 1 POC1A 1 POLD1 1 POLD2 1 PON3 1 POP1 1 POU1F1 1 PPM1K 1 PPOX 1 PRDM8 1 PREPL 1 PRF1 1 PRICKLE1 1 PRKDC 1 PRKN 1 PRKRA 1 PRRX1 1 PRX 1 PYGL 1 RAB27A 1 RAB40AL 1 RALGAPB 1 RANBP2 1 RAPSN 1 RASA1 2 RAX 1 RBFOX1 1 RBL2 1 RBM28 1 RBM8A 1 RBPJ 1 RECQL4 1 RET 1 RFX6 1 RIMS1 1 RIN2 1 RING1 1 RNF135 2 RPL11 1 RPS19 1 RPS28 1 RUBCN 1 SALL1 1 SAMD9L 1 SBDS 1 SCN11A 1 SCN9A 1 SCO1 1 SECISBP2 1 SELENOI 1 SELENON 1 SF3B4 1 SGCA 1 SH3TC2 1 SHANK1 1 SLC12A1 1 SLC19A2 1 SLC1A3 1 SLC20A2 1 SLC22A5 1 SLC25A13 1 SLC25A19 1 SLC25A20 1 SLC25A24 1 SLC25A4 2 SLC29A3 1 SLC2A10 1 SLC39A4 1 SLC44A1 2 SLC5A2 1 SLC6A4 1 SLC7A7 1 SLC9A9 1 SMCHD1 1 SMG6 1 SNIP1 1 SNRPA 1 SNRPE 2 SOBP 1 SOST 1 SP7 1 SPAST 1 SPEG 1 SPG7 2 SPINK5 1 SPRTN 1 SPTLC1 1 SRPX2 1 ST7 1 STAC3 1 STAT5B 1 STK3 1 STT3B 1 STX11 1 SYT14 1 TAF8 1 TDGF1 2 TECR 1 TFAP2A 1 TFAP2B 1 TFG 1 TG 1 TGFBR1 1 TGFBR2 1 THAP1 1 TIMM8A 1 TMEM260 1 TP63 1 TPH2 1 TPK1 1 TRAPPC6A 1 TREM2 1 TRHR 1 TRIM32 1 TRIM37 1 TSEN34 1 TSHR 1 TTC21B 1 TTR 1 TUBA8 1 TWNK 1 TXNL4A 1 UBE2U 1 UBR4 2 UCHL1 1 UGT1A1 1 UNC13A 1 UNC13D 1 UQCRB 1 UQCRC2 1 UQCRQ 1 UROC1 1 VAMP1 1 VANGL1 1 VPS45 1 WASHC5 1 WDR13 1 WDR19 1 WDR34 1 WIPI2 1 WRAP53 1 XIST 1 XPNPEP3 1 ZCCHC12 1 ZDHHC15 1 ZFP57 1 ZMYM3 1 ZNF41 1 ZNF423 1 ZNF507 1 ZNF674 1 ZNF804A 1 ZNF81 2 ZNHIT6 1 DIP2B 2 DMPK 2 Add a gene STRs in panel DM1 1 FRAXE 1 FRA12A 1 Add a STR Regions in panel Add a Region Intellectual disability syndromic and non-syndromic Gene: HMGB1 Green List (high evidence) You reviewed HMGB1 (high mobility group box 1) EnsemblGeneIds (GRCh38): ENSG00000189403 EnsemblGeneIds (GRCh37): ENSG00000189403 OMIM: 163905, Gene2Phenotype HMGB1 is in 3 panels Reviews (1) Details History Review feedback Review gene Rating: Rating Mode of Inheritance: Mode of Inheritance Mode of pathogenicity: Mode of pathogenicity Publications (PMID: 1234; 4321): Publications (PMID: 1234; 4321) Phenotypes (separate using a semi-colon -; ): Phenotypes (separate using a semi-colon -; ) Current diagnostic: Current diagnostic Comments: Comments 1 review Your review Chirag Patel (Genetic Health Queensland) Green List (high evidence) 13q12.3 microdeletion syndrome is a rare cause of syndromic ID. Previous studies identified four genes within the ~300 Kb minimal critical region including two candidate protein coding genes: KATNAL1 and HMGB1. Uguen et al. (2021) report 6 patients with LOF variants involving HMGB1 with features similar to 13q12.3 microdeletion syndrome (i.e. developmental delay, language delay, microcephaly, obesity and dysmorphic features). In silico analyses suggest that HMGB1 is likely to be intolerant to LOF, and previous in vitro data are in line with the role of HMGB1 in neurodevelopment. They suggest that haploinsufficiency of the HMGB1 gene may play a critical role in the pathogenesis of the 13q12.3 microdeletion syndrome. Sources: Literature Created: 17 Sep 2021, 4:56 a.m. Mode of inheritance MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Phenotypes Developmental delay and microcephaly, no OMIM # Review for gene: HMGB1 was set to GREEN Added comment: 13q12.3 microdeletion syndrome is a rare cause of syndromic ID. Previous studies identified four genes within the ~300 Kb minimal critical region including two candidate protein coding genes: KATNAL1 and HMGB1. Uguen et al. (2021) report 6 patients with LOF variants involving HMGB1 with features similar to 13q12.3 microdeletion syndrome (i.e. developmental delay, language delay, microcephaly, obesity and dysmorphic features). In silico analyses suggest that HMGB1 is likely to be intolerant to LOF, and previous in vitro data are in line with the role of HMGB1 in neurodevelopment. They suggest that haploinsufficiency of the HMGB1 gene may play a critical role in the pathogenesis of the 13q12.3 microdeletion syndrome. Sources: Literature |
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| Microcephaly v1.44 | ZNF668 |
Paul De Fazio changed review comment from: 5 individuals from 3 consanguineous families reported with different biallelic truncating (not NMD) variants in ZNF668. Phenotypes included microcephaly, growth deficiency, severe global developmental delay, brain malformation, and distinct facial dysmorphism. Immunofluorescence indicated ZNF668 deficiency. An increased DNA damage phenotype was demonstrated in patient fibroblasts. Sources: Literature; to: 2 consanguineous families reported with different biallelic truncating (not NMD) variants in ZNF668. Phenotypes included microcephaly, growth deficiency, severe global developmental delay, brain malformation, and distinct facial dysmorphism. Immunofluorescence indicated ZNF668 deficiency. An increased DNA damage phenotype was demonstrated in patient fibroblasts. Sources: Literature |
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| Microcephaly v1.44 | ZNF668 |
Paul De Fazio gene: ZNF668 was added gene: ZNF668 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: ZNF668 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: ZNF668 were set to 34313816; 26633546 Phenotypes for gene: ZNF668 were set to DNA damage repair defect; microcephaly; growth deficiency; severe global developmental delay; brain malformation; facial dysmorphism Review for gene: ZNF668 was set to GREEN gene: ZNF668 was marked as current diagnostic Added comment: 5 individuals from 3 consanguineous families reported with different biallelic truncating (not NMD) variants in ZNF668. Phenotypes included microcephaly, growth deficiency, severe global developmental delay, brain malformation, and distinct facial dysmorphism. Immunofluorescence indicated ZNF668 deficiency. An increased DNA damage phenotype was demonstrated in patient fibroblasts. Sources: Literature |
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| Microcephaly v1.36 | TNPO2 |
Zornitza Stark gene: TNPO2 was added gene: TNPO2 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: TNPO2 was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: TNPO2 were set to 34314705 Phenotypes for gene: TNPO2 were set to Intellectual disability, neurologic deficits and dysmorphic features Mode of pathogenicity for gene: TNPO2 was set to Other Review for gene: TNPO2 was set to GREEN Added comment: PMID: 34314705 - all de novo missense variants with intellectual disability (9/9), speech impairment (15/15), motor impairment (15/15), ophthalmologic abnormalities (10/15), muscle tone abnormalities (11/15, primarily hypotonia), seizures (6/15, febrile to non-febrile), microcephaly (5/15) and MRI anomalies (7/13, 3/13 had cerebellar hypoplasia/dysplasia). Null fly model was homozygous lethal, no obvious phenotypes in heterozygotes. Upregulated gene expression also resulted in lethality. Overexpression of some human variants in fly models resulted in "toxicity" and phenotypic defects, authors speculate two variants are GOF, 1 variant is LOF. gnomAD: minimal PTCs present Sources: Literature |
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| Microcephaly v1.28 | PPP2R1A | Zornitza Stark Phenotypes for gene: PPP2R1A were changed from Mental retardation, autosomal dominant 36 MIM#616362 to Mental retardation, autosomal dominant 36, MIM#616362; Microcephaly-corpus callosum hypoplasia-intellectual disability-facial dysmorphism syndrome, MONDO:0014605 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.25 | EIF5A | Zornitza Stark Phenotypes for gene: EIF5A were changed from Intellectual disability; microcephaly; dysmorphism to Faundes-Banka syndrome, MIM# 619376; Intellectual disability; microcephaly; dysmorphism | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.24 | EIF5A | Zornitza Stark edited their review of gene: EIF5A: Changed phenotypes: Faundes-Banka syndrome, MIM# 619376, Intellectual disability, microcephaly, dysmorphism | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v1.23 | BCAS3 |
Paul De Fazio gene: BCAS3 was added gene: BCAS3 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: BCAS3 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: BCAS3 were set to 34022130 Phenotypes for gene: BCAS3 were set to Syndromic neurodevelopmental disorder Review for gene: BCAS3 was set to GREEN gene: BCAS3 was marked as current diagnostic Added comment: 15 individuals from eight unrelated families with germline bi-allelic loss-of-function variants in BCAS3. All probands share a global developmental delay accompanied by pyramidal tract involvement, microcephaly, short stature, strabismus, dysmorphic facial features, and seizures. Patient fibroblasts confirmed absence of BCAS3 protein. 7 patients had microcephaly (head circumference <= -3 SD) Sources: Literature |
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| Microcephaly v1.21 | UBE3B |
Zornitza Stark gene: UBE3B was added gene: UBE3B was added to Microcephaly. Sources: Expert Review Mode of inheritance for gene: UBE3B was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: UBE3B were set to 23200864; 23200864; 34012380; 32949109 Phenotypes for gene: UBE3B were set to Kaufman oculocerebrofacial syndrome, MIM# 244450; MONDO:0009485 Review for gene: UBE3B was set to GREEN Added comment: Intellectual disability, microcephaly, dysmorphic features, including blepharophimosis and ptosis. Over 20 families reported. Sources: Expert Review |
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| Microcephaly v1.19 | MCM7 |
Zornitza Stark gene: MCM7 was added gene: MCM7 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: MCM7 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: MCM7 were set to 33654309; 34059554 Phenotypes for gene: MCM7 were set to Meier-Gorlin syndrome; Microcephaly; Intellectual disability; Lipodystrophy; Adrenal insufficiency Review for gene: MCM7 was set to AMBER Added comment: MCM7 is a component of the MCM complex, a DNA helicase which is essential for DNA replication. Other components have been linked to disease with phenotypes including microcephaly and ID. MCM7 is not associated with any phenotype in OMIM or G2P at present. ------ Currently there are 3 unrelated pedigrees in literature with different biallelic MCM7 variants associated with disease (see below). Although there is some functional data in support of variant-level deleteriousness or gene-level pathogenicity, the clinical gestalt is very different between the 3 families. - PMID: 33654309 (2021) - Two unrelated individuals with different compound het variants in MCM7 but disparate clinical features. One patient had typical Meier-Gorlin syndrome (including growth retardation, microcephaly, congenital lung emphysema, absent breast development, microtia, facial dysmorphism) whereas the second case had a multi-system disorder with neonatal progeroid appearance, lipodystrophy and adrenal insufficiency. While small at birth, the second patient did not demonstrate reduced stature or microcephaly at age 14.5 years. Both individuals had normal neurodevelopment. Functional studies using patient-derived fibroblasts demonstrate that the identified MCM7 variants were deleterious at either transcript or protein levels and through interfering with MCM complex formation, impact efficiency of S phase progression. - PMID: 34059554 (2021) - Homozygous missense variant identified in three affected individuals from a consanguineous family with severe primary microcephaly, severe ID and behavioural abnormalities. Knockdown of Mcm7 in mouse neuroblastoma cells lead to reduced cell viability and proliferation with increased apoptosis, which were rescued by overexpression of wild-type but not mutant MCM7. Sources: Literature |
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| Microcephaly v1.14 | SMARCA5 |
Zornitza Stark gene: SMARCA5 was added gene: SMARCA5 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: SMARCA5 was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: SMARCA5 were set to 33980485 Phenotypes for gene: SMARCA5 were set to Neurodevelopmental disorder; microcephaly; dysmorphic features Review for gene: SMARCA5 was set to GREEN Added comment: 12 individuals reported with either de novo or appropriately segregating variants in this gene and mild developmental delay, frequent postnatal short stature and microcephaly, and recurrent dysmorphic features. Functional data supports gene-disease association. Sources: Literature |
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| Microcephaly v1.12 | AFF3 |
Zornitza Stark gene: AFF3 was added gene: AFF3 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: AFF3 was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: AFF3 were set to 31388108; 33961779 Phenotypes for gene: AFF3 were set to KINSSHIP syndrome, MIM# 619297 Review for gene: AFF3 was set to GREEN Added comment: 16 affected individuals reported with de novo missense variants. All variants occurred within the degron motif of the ALF domain. The highly conserved 9-amino acid motif mediates the interaction with SIAH E3 ubiquitin ligases and regulates their degradation. Thirteen of the probands carried variants affecting the same codon in exon 6, ala258. All probands presented with severe developmental epileptic encephalopathy along with mesomelic dysplasia (12/18) and failure to thrive (14/18). The skeletal features included short forearms, radial head dislocation/subluxation, triangular and/or short tibia, fibular hypoplasia, hip dislocation, and tarsal and/or metatarsal synostosis resembling Nievergelt/Savarirayan mesomelic skeletal dysplasia. Other features included microcephaly (9/18), global brain atrophy and/or ventriculomegaly (13/15), fibular hypoplasia (12/16), horseshoe or hypoplastic kidney (13/17), abnormalities of muscle tone (12/16), gastroesophageal reflux disease (6/16), and other gastrointestinal symptoms (14/17). The patients also shared common dysmorphic facial features such as a bulbous nasal tip (10/15), a wide mouth (10/16) often with a square upper lip, abnormalities of the teeth and gums (12/15), and hypertrichosis (12/15). The constellation of features recalled some features of CHOPS syndrome, which is caused by mutations in a related gene, AFF4. Sources: Literature |
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| Microcephaly v1.7 | KCNJ6 |
Zornitza Stark changed review comment from: Keppen-Lubinsky syndrome characterised by severely delayed psychomotor development, hypertonia, hyperreflexia, generalized lipodystrophy giving an aged appearance, and distinctive dysmorphic features, including microcephaly, prominent eyes, narrow nasal bridge, and open mouth. Three unrelated individuals reported with de novo variants in this gene (one recurred in 2), mouse model. Sources: Expert Review; to: Keppen-Lubinsky syndrome characterised by severely delayed psychomotor development, hypertonia, hyperreflexia, generalized lipodystrophy giving an aged appearance, and distinctive dysmorphic features, including microcephaly, prominent eyes, narrow nasal bridge, and open mouth. Four unrelated individuals reported with de novo variants in this gene (one recurred in 2), mouse model. One of the individuals did not have lipodystrophy but had a prominent hyperkinetic movement disorder. Sources: Expert Review |
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| Microcephaly v1.6 | KCNJ6 |
Zornitza Stark gene: KCNJ6 was added gene: KCNJ6 was added to Microcephaly. Sources: Expert Review Mode of inheritance for gene: KCNJ6 was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: KCNJ6 were set to 25620207 Phenotypes for gene: KCNJ6 were set to Keppen-Lubinsky syndrome, MIM# 614098; MONDO:0013572 Review for gene: KCNJ6 was set to GREEN Added comment: Keppen-Lubinsky syndrome characterised by severely delayed psychomotor development, hypertonia, hyperreflexia, generalized lipodystrophy giving an aged appearance, and distinctive dysmorphic features, including microcephaly, prominent eyes, narrow nasal bridge, and open mouth. Three unrelated individuals reported with de novo variants in this gene (one recurred in 2), mouse model. Sources: Expert Review |
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| Microcephaly v0.637 | TTC5 | Zornitza Stark Phenotypes for gene: TTC5 were changed from Intellectual disability; microcephaly to Neurodevelopmental disorder with cerebral atrophy and variable facial dysmorphism , MIM#619244; Intellectual disability; microcephaly | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.636 | TTC5 | Zornitza Stark reviewed gene: TTC5: Rating: GREEN; Mode of pathogenicity: None; Publications: ; Phenotypes: Neurodevelopmental disorder with cerebral atrophy and variable facial dysmorphism , MIM#619244; Mode of inheritance: BIALLELIC, autosomal or pseudoautosomal | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.576 | MSMO1 | Zornitza Stark Marked gene: MSMO1 as ready | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.576 | MSMO1 | Zornitza Stark Gene: msmo1 has been classified as Green List (High Evidence). | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.576 | MSMO1 | Zornitza Stark Publications for gene: MSMO1 were set to | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.575 | MSMO1 | Zornitza Stark Mode of inheritance for gene: MSMO1 was changed from Unknown to BIALLELIC, autosomal or pseudoautosomal | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.574 | MSMO1 | Zornitza Stark Phenotypes for gene: MSMO1 were changed from to Microcephaly, congenital cataract, and psoriasiform dermatitis, MIM# 616834; MONDO:0014793 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.573 | MSMO1 | Zornitza Stark reviewed gene: MSMO1: Rating: GREEN; Mode of pathogenicity: None; Publications: 21285510, 24144731, 28673550, 33161406; Phenotypes: Microcephaly, congenital cataract, and psoriasiform dermatitis, MIM# 616834; Mode of inheritance: BIALLELIC, autosomal or pseudoautosomal | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.524 | EIF5A |
Zornitza Stark gene: EIF5A was added gene: EIF5A was added to Microcephaly. Sources: Literature Mode of inheritance for gene: EIF5A was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: EIF5A were set to 33547280 Phenotypes for gene: EIF5A were set to Intellectual disability; microcephaly; dysmorphism Review for gene: EIF5A was set to GREEN Added comment: 7 unrelated individuals reported with de novo variants in this gene and variable combinations of developmental delay, microcephaly, micrognathia and dysmorphism. Sources: Literature |
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| Microcephaly v0.509 | MORC2 |
Zornitza Stark gene: MORC2 was added gene: MORC2 was added to Microcephaly. Sources: Expert list Mode of inheritance for gene: MORC2 was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: MORC2 were set to 32693025 Phenotypes for gene: MORC2 were set to Developmental delay; Intellectual disability; Growth retardation; Microcephaly; Craniofacial dysmorphism; Charcot-Marie-Tooth disease, axonal, type 2Z, OMIM:616688 Review for gene: MORC2 was set to GREEN Added comment: MORC2 variants have commonly been associated with CMT, presenting axonal neuropathy with progressive weakness, muscle cramps and sensory impairment. However, Sacoto et al (2020) (PMID: 32693025) present a cohort of 20 individuals (19 kindreds) with a neurodevelopmental disorder characterised by DD, ID (18/20 - mild to severe), short stature (18/20), microcephaly (15/20) and variable craniofacial dysmorphisms. Hearing loss was observed in 11/19 subjects, primarily SNHL. Sources: Expert list |
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| Microcephaly v0.487 | SHMT2 |
Zornitza Stark gene: SHMT2 was added gene: SHMT2 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: SHMT2 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: SHMT2 were set to 33015733 Phenotypes for gene: SHMT2 were set to Congenital microcephaly; Infantile axial hypotonia; Spastic paraparesis; Global developmental delay; Intellectual disability; Abnormality of the corpus callosum; Abnormal cortical gyration; Hypertrophic cardiomyopathy; Abnormality of the face; Proximal placement of thumb; 2-3 toe syndactyly Review for gene: SHMT2 was set to GREEN Added comment: García‑Cazorla et al. (2020 - PMID: 33015733) report 5 individuals (from 4 families) with a novel brain and heart developmental syndrome caused by biallelic SHMT2 pathogenic variants. All affected subjects presented similar phenotype incl. microcephaly at birth (5/5 with OFC < -2 SD though in 2/5 cases N OFC was observed later), DD and ID (1/5 mild-moderate, 1/5 moderate, 3/5 severe), motor dysfunction in the form of spastic (5/5) paraparesis, ataxia/dysmetria (3/4), intention tremor (in 3/?) and/or peripheral neuropathy (2 sibs). They exhibited corpus callosum hypoplasia (5/5) and perisylvian microgyria-like pattern (4/5). Cardiac problems were reported in all, with hypertrophic cardiomyopathy in 4/5 (from 3 families) and atrial-SD in the 5th individual (1/5). Common dysmorphic features incl. long palpebral/fissures, eversion of lateral third of lower eylids, arched eyebrows, long eyelashes, thin upper lip, short Vth finger, fetal pads, mild 2-3 toe syndactyly, proximally placed thumbs. Biallelic variants were identified following exome sequencing in all (other investigations not mentioned). Identified variants were in all cases missense SNVs or in-frame del, which together with evidence from population databases and mouse model might suggest a hypomorphic effect of variants and intolerance/embryonic lethality for homozygous LoF ones. SHMT2 encodes the mitohondrial form of serine hydroxymethyltransferase. The enzyme transfers one-carbon units from serine to tetrahydrofolate (THF) and generates glycine and 5,10,methylene-THF. Mitochondrial defect was suggested by presence of ragged red fibers in myocardial biopsy of one patient. Quadriceps and myocardial biopsies of the same individual were overall suggestive of myopathic changes. While plasma metabolites were within N range and SHMT2 protein levels not significantly altered in patient fibroblasts, the authors provide evidence for impaired enzymatic function eg. presence of the SHMT2 substrate (THF) in patient but not control (mitochondria-enriched) fibroblasts , decrease in glycine/serine ratios, impared folate metabolism. Patient fibroblasts displayed impaired oxidative capacity (reduced ATP levels in a medium without glucose, diminished oxygen consumption rates). Mitochondrial membrane potential and ROS levels were also suggestive of redox malfunction. Shmt2 ko in mice was previously shown to be embryonically lethal attributed to severe mitochondrial respiration defects, although there was no observed brain metabolic defect. The authors performed Shmt2 knockdown in motoneurons in Drosophila, demonstrating neuromuscular junction (# of satellite boutons) and motility defects (climbing distance/velocity). Sources: Literature |
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| Microcephaly v0.482 | LMNB1 |
Zornitza Stark gene: LMNB1 was added gene: LMNB1 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: LMNB1 was set to MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted Publications for gene: LMNB1 were set to 32910914 Phenotypes for gene: LMNB1 were set to Global developmental delay; Intellectual disability; Microcephaly; Short stature; Seizures; Abnormality of the corpus callosum; Cortical gyral simplification; Feeding difficulties; Scoliosis Mode of pathogenicity for gene: LMNB1 was set to Loss-of-function variants (as defined in pop up message) DO NOT cause this phenotype - please provide details in the comments Review for gene: LMNB1 was set to GREEN Added comment: Cristofoli et al (2020 - PMID: 32910914) report 7 individuals (from 5 families) harboring mostly de novo LMNB1 variants. The common phenotype consisted of primary microcephaly (7/7 ranging from -4.4 to -10 SD), DD/ID (7/7), relative short stature in most (+0.7 to -4 SD). Additional features included brain MRI abnormalities (abnormal CC in 3, simplified gyral pattern in 3, small structurally normal brain, etc), seizures (4 individuals from 2 families), limb spasticity (1/7), cortical visual impairment (in 3), feeding difficulties (5/7), scoliosis (4/7). Non-overlapping dysmorphic features were reported in some. Variants were identified by WES or custom-designed gene panel and included 3 missense variants, 1 in-frame deletion and a splice variant. The in-frame deletion was inherited from a similarly affected parent in whom the variant occurred as a dn event. The splice SNV(NM_005573.3:c.939+1G>A) occurred in 3 sibs and was present as mosaic variant (15%) in the parent. This variant was predicted to result to extension of exon 5 by 6 amino-acids (samples were unavailable for mRNA studies). LMNB1 encodes a B-type lamin (the other being encoded by LMNB2). A- and B- type lamins are major components of the nuclear lamina. As the authors comment, LMNB1 is expressed in almost all cell types beginning at the earliest stages of development. Lamin-deficient mouse models support an essential role of B-type lamins in organogenesis, neuronal migration, patterning during brain development. Functional studies performed, demonstrated impaired formation of LMNB1 nuclear lamina in LMNB1-null HeLa cells transfected with cDNAs for 3 missense variants. Two variants (Lys33Glu/Arg42Trp) were shown to result in decreased nuclear localization with increased abundance in the cytosolic fraction. In patient derived LCLs these variants led to abnormal nuclear morphology. A missense variant in another domain (Ala152Gly - 1st coil domain) resulted also in lower abundance of lamin B1, irregular lamin A/C nuclear lamina, as well as more condensed nuclei (HeLa cells). LMNB1 duplications or missense mutations increasing LMNB1 expression are associated with a different presentation of AD leuodystrophy. A variant previously associated with leukodystrophy (Arg29Trp) was shown to behave differently (present in the nuclear extract but not in the cytosol, lamin B1 to A/C ratio in nuclear extract was not significantly altered compared to wt as was the case for Arg42Trp, Lys33Glu). Given the pLI score of 0.55 as well as the phenotype of individuals with deletions (not presenting microcephaly) the authors predict that a dominant-negative effect applies (rather than haploinsufficiency). Sources: Literature |
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| Microcephaly v0.480 | GTPBP2 |
Zornitza Stark gene: GTPBP2 was added gene: GTPBP2 was added to Microcephaly. Sources: Expert Review Mode of inheritance for gene: GTPBP2 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: GTPBP2 were set to 26675814; 29449720; 30790272 Phenotypes for gene: GTPBP2 were set to Jaberi-Elahi syndrome, MIM#617988 Review for gene: GTPBP2 was set to GREEN Added comment: Nine individuals from six unrelated families with bi-allelic variants in this gene causing a neuro-ectodermal syndrome. Key features include prenatal onset microcephaly, tone abnormalities, and movement disorders, epilepsy, dysmorphic features, retinal dysfunction, ectodermal dysplasia, and brain iron accumulation. Sources: Expert Review |
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| Microcephaly v0.396 | PRUNE1 |
Zornitza Stark gene: PRUNE1 was added gene: PRUNE1 was added to Microcephaly. Sources: Expert list Mode of inheritance for gene: PRUNE1 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: PRUNE1 were set to 26539891; 28334956 Phenotypes for gene: PRUNE1 were set to Neurodevelopmental disorder with microcephaly, hypotonia, and variable brain anomalies , MIM#617481 Review for gene: PRUNE1 was set to GREEN Added comment: 8 unrelated families reported with an autosomal recessive neurodevelopmental, and neurodegenerative disorder characterised by global developmental delay apparent from infancy and profound intellectual disability. Affected individuals have microcephaly with accompanying dysmorphic features, truncal hypotonia, peripheral spasticity, and lack of independent ambulation or speech acquisition. Brain imaging shows variable abnormalities, including cortical atrophy, thin corpus callosum, cerebellar hypoplasia, and delayed myelination Sources: Expert list |
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| Microcephaly v0.386 | POC1A | Zornitza Stark Phenotypes for gene: POC1A were changed from to Short stature, onychodysplasia, facial dysmorphism, and hypotrichosis, MIM# 614813 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.384 | POC1A | Zornitza Stark edited their review of gene: POC1A: Changed phenotypes: Short stature, onychodysplasia, facial dysmorphism, and hypotrichosis, MIM# 614813 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.369 | CTU2 | Zornitza Stark Phenotypes for gene: CTU2 were changed from to Microcephaly, facial dysmorphism, renal agenesis, and ambiguous genitalia syndrome (MIM#618142) | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.366 | CTU2 | Ain Roesley reviewed gene: CTU2: Rating: GREEN; Mode of pathogenicity: None; Publications: 26633546; Phenotypes: Microcephaly, facial dysmorphism, renal agenesis, and ambiguous genitalia syndrome (MIM#618142); Mode of inheritance: BIALLELIC, autosomal or pseudoautosomal | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.288 | CDK13 | Seb Lunke Phenotypes for gene: CDK13 were changed from to Congenital heart defects, dysmorphic facial features, and intellectual developmental disorder (MIM#617360) | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.273 | DDX11 |
Naomi Baker gene: DDX11 was added gene: DDX11 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: DDX11 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: DDX11 were set to PMID: 31824187; 20137776; 23033317. Phenotypes for gene: DDX11 were set to Warsaw breakage syndrome, MIM#613398 Penetrance for gene: DDX11 were set to Complete Review for gene: DDX11 was set to GREEN Added comment: The cardinal clinical features observed in Warsaw breakage syndrome (WABS) patients include severe pre- and post-natal growth retardation, microcephaly, sensorineural hearing loss, cochlear anomalies, facial dysmorphia and sister chromatid cohesion defects (PMID: 31824187). A male patient with biallelic DDX11 variants (splice site and in-frame deletion) presented with several congenital abnormalities, including microcephaly, facial dysmorphy, high arched palate, coloboma of the right optic disc, deafness, small ventricular septal defect, bilateral clinodactyly of the fifth fingers, syndactyly of the second and third toes, cutis marmorata, and one hypo- and three hyperpigmented patches on the skin. Authors proposed to name the syndrome associated with defective DDX11 “Warsaw breakage syndrome” (WABS) (PMID: 20137776). Three siblings carrying a biallelic DDX11 missense variant with clinical presentation of WABS: ID, growth retardation, and severe congenital abnormalities including microcephaly, facial dysmorphism, deafness due to cochlear abnormalities (in two of the sibs), and cardiac malformations (in one of the sibs) (PMID: 23033317). Sources: Literature |
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| Microcephaly v0.273 | CDK13 | Ain Roesley reviewed gene: CDK13: Rating: AMBER; Mode of pathogenicity: None; Publications: 27479907, 29021403, 31238879; Phenotypes: Congenital heart defects, dysmorphic facial features, and intellectual developmental disorder (MIM#617360); Mode of inheritance: MONOALLELIC, autosomal or pseudoautosomal, imprinted status unknown | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.273 | CCDC88A |
Ain Roesley gene: CCDC88A was added gene: CCDC88A was added to Microcephaly. Sources: Literature Mode of inheritance for gene: CCDC88A was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: CCDC88A were set to 30392057; 26917597 Phenotypes for gene: CCDC88A were set to PEHO syndrome-like (MIM#617507) Penetrance for gene: CCDC88A were set to unknown Review for gene: CCDC88A was set to AMBER Added comment: PMID: 30392057 - consanguineous Saudi family with 2 affecteds. Homozygous for a nonsense variant - microcephaly, dev delay, ID, epilepsy, dysmorphism and brain atropy - no measurements provided PMID: 26917597 - consanguineous family with 3 affecteds. Homozygous fs variant - infantile hypotonia, dev delay, optic and brain atrophy, seizures and microcephaly (measurements not provided) - functional studies on KO mice Sources: Literature |
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| Microcephaly v0.254 | KIF1BP |
Zornitza Stark gene: KIF1BP was added gene: KIF1BP was added to Microcephaly. Sources: Expert list Mode of inheritance for gene: KIF1BP was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: KIF1BP were set to 23427148 Phenotypes for gene: KIF1BP were set to Goldberg-Shprintzen megacolon syndrome, MIM# 609460 Review for gene: KIF1BP was set to GREEN Added comment: Autosomal recessive multiple congenital anomaly syndrome characterised by intellectual disability, microcephaly, and dysmorphic facial features. Most individuals also have Hirschsprung disease and/or gyral abnormalities of the brain, consistent with defects in migration of neural crest cells and neurons. Other features, such as megalocornea or urogenital anomalies, may also be present. Well established gene-disease association, multiple families reported. Note HGNC approved name is KIAA1279. Sources: Expert list |
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| Microcephaly v0.188 | WDR73 |
Paul De Fazio gene: WDR73 was added gene: WDR73 was added to Microcephaly. Sources: Literature Mode of inheritance for gene: WDR73 was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: WDR73 were set to 25466283; 26123727; 25873735; 26070982; 30315938 Phenotypes for gene: WDR73 were set to Galloway-Mowat syndrome 1 MIM#251300 Review for gene: WDR73 was set to GREEN gene: WDR73 was marked as current diagnostic Added comment: Summary: many individuals with progressive microcephaly reported, though only a few (4 families) with head circumference -3SD. PMID 25466283: Three affected children from two families with LoF variants. All had progressive microcephaly among other phenotypes (e.g. facial dysmorphisms, brain MRI anomalies). Head circumferences were -3SD at 5yo, -2.5SD at 2yo, -3SD at 10yo. PMID 26123727: 9 individuals from 4 families with "Microcephaly (< 3rd centile)" and biallelic variants, ranging in age from 2.5yo to 31yo. PMID 26070982: describes 30 Amish individuals with the same homozygous LoF variant, 80% of whom (24 individuals) had head circumference <-2SD. PMID 25873735: 2 sibs with biallelic LoF variants and head circumference -1.8SD at 12yo and −1.15SD at 5yo respectively. PMID 30315938: 2 families with homozygous missense variants. All had postnatal microcephaly: -2.5SD, -4,5SD, -3,8SD from 1 family and -3 SD from the other. Sources: Literature |
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| Microcephaly v0.148 | SMO | Zornitza Stark Phenotypes for gene: SMO were changed from Microcephaly, congenital heart disease, polydactyly, aganglionosis to Microcephaly, congenital heart disease, polydactyly, aganglionosis; Pallister-Hall-like syndrome , MIM#241800 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.129 | SMO | Zornitza Stark Marked gene: SMO as ready | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.129 | SMO | Zornitza Stark Gene: smo has been classified as Green List (High Evidence). | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.129 | SMO | Zornitza Stark Classified gene: SMO as Green List (high evidence) | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.129 | SMO | Zornitza Stark Gene: smo has been classified as Green List (High Evidence). | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.128 | SMO |
Zornitza Stark gene: SMO was added gene: SMO was added to Microcephaly. Sources: Literature Mode of inheritance for gene: SMO was set to BIALLELIC, autosomal or pseudoautosomal Publications for gene: SMO were set to 32413283 Phenotypes for gene: SMO were set to Microcephaly, congenital heart disease, polydactyly, aganglionosis Review for gene: SMO was set to GREEN Added comment: Bi-allelic loss-of-function variations in SMO reported in seven individuals from five independent families. Wide phenotypic spectrum of developmental anomalies affecting the brain (hypothalamic hamartoma and microcephaly), heart (atrioventricular septal defect), skeleton (postaxial polydactyly, narrow chest, and shortening of long bones), and enteric nervous system (aganglionosis). Sources: Literature |
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| Microcephaly v0.95 | BPTF | Zornitza Stark Phenotypes for gene: BPTF were changed from to Neurodevelopmental disorder with dysmorphic facies and distal limb anomalies, MIM# 617755 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.92 | BPTF | Zornitza Stark reviewed gene: BPTF: Rating: GREEN; Mode of pathogenicity: None; Publications: 28942966; Phenotypes: Neurodevelopmental disorder with dysmorphic facies and distal limb anomalies, MIM# 617755; Mode of inheritance: MONOALLELIC, autosomal or pseudoautosomal, NOT imprinted | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Microcephaly v0.0 | MSMO1 |
Zornitza Stark gene: MSMO1 was added gene: MSMO1 was added to Microcephaly_VCGS. Sources: Expert Review Green,Victorian Clinical Genetics Services Mode of inheritance for gene: MSMO1 was set to Unknown |
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