Forma de epilepsia relacionada à localização (focal), caracterizada por convulsões recorrentes que surgem de focos no lobo temporal, mais comumente em sua face mesial. Uma grande variedade de fenômenos psíquicos pode estar associada, incluindo ilusões, alucinações, estados discognitivos e experiências afetivas. A maioria das crises parciais complexas (ver epilepsia parcial complexa) origina-se dos lobos temporais. As crises do lobo temporal podem ser classificadas por etiologia como criptogênicas, familiares ou sintomáticas (ou seja, relacionadas a um processo de doença ou lesão identificada). (De Adams et al., Princípios de Neurologia, 6ª ed, p321)
Introdução
O que você precisa saber de cara
Forma de epilepsia relacionada à localização (focal), caracterizada por convulsões recorrentes que surgem de focos no lobo temporal, mais comumente em sua face mesial. Uma grande variedade de fenômenos psíquicos pode estar associada, incluindo ilusões, alucinações, estados discognitivos e experiências afetivas. A maioria das crises parciais complexas (ver epilepsia parcial complexa) origina-se dos lobos temporais. As crises do lobo temporal podem ser classificadas por etiologia como criptogênicas, familiares ou sintomáticas (ou seja, relacionadas a um processo de doença ou lesão identificada). (De Adams et al., Princípios de Neurologia, 6ª ed, p321)
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Entender a doença
Do básico ao detalhe, leia no seu ritmo
Preparando trilha educativa...
Sinais e sintomas
O que aparece no corpo e com que frequência cada sintoma acontece
Partes do corpo afetadas
+ 5 sintomas em outras categorias
Características mais comuns
Os sintomas variam de pessoa para pessoa. Abaixo estão as 25 características clínicas mais associadas, ordenadas por frequência.
Linha do tempo da pesquisa
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Genética e causas
O que está alterado no DNA e como passa nas famílias
Genes associados
4 genes identificados com associação a esta condição.
May be involved in the proteolytic inactivation of enkephalins and neurotensin in some brain areas. May convert inactive angiotensin I into the biologically active angiotensin II (PubMed:18178555). Releases a C-terminal amino acid, with preference for large hydrophobic C-terminal amino acids and shows only very weak activity toward small amino acids and histidine (PubMed:20855895)
Secreted, extracellular space, extracellular matrix
Regulates voltage-gated potassium channels assembled from KCNA1, KCNA4 and KCNAB1. It slows down channel inactivation by precluding channel closure mediated by the KCNAB1 subunit. Ligand for ADAM22 that positively regulates synaptic transmission mediated by AMPA-type glutamate receptors (By similarity). Plays a role in suppressing the production of MMP1/3 through the phosphatidylinositol 3-kinase/ERK pathway. May play a role in the control of neuroblastoma cell survival
SecretedSynapseCytoplasmGolgi apparatusEndoplasmic reticulum
Epilepsy, familial temporal lobe, 1
A focal form of epilepsy characterized by recurrent seizures that arise from foci within the temporal lobe. Seizures are usually accompanied by sensory symptoms, most often auditory in nature.
Endocrine hormone of the central and peripheral nervous systems that binds and activates the G protein-coupled receptors GALR1, GALR2, and GALR3. This small neuropeptide may regulate diverse physiologic functions including contraction of smooth muscle of the gastrointestinal and genitourinary tract, growth hormone and insulin release and adrenal secretion
Secreted
Epilepsy, familial temporal lobe, 8
A focal form of epilepsy characterized by recurrent seizures that arise from foci within the temporal lobe. Seizures are usually accompanied by sensory symptoms, most often auditory in nature.
Extracellular matrix serine protease secreted by pioneer neurons that plays a role in layering of neurons in the cerebral cortex and cerebellum by coordinating cell positioning during neurodevelopment. Regulates microtubule function in neurons and neuronal migration. Binding to the extracellular domains of lipoprotein receptors VLDLR and LRP8/APOER2 induces tyrosine phosphorylation of DAB1 and modulation of TAU phosphorylation. Affects migration of sympathetic preganglionic neurons in the spinal
Secreted, extracellular space, extracellular matrix
Lissencephaly 2
A classic type lissencephaly associated with ataxia, intellectual disability, seizures and abnormalities of the cerebellum, hippocampus and brainstem.
Variantes genéticas (ClinVar)
564 variantes patogênicas registradas no ClinVar.
Classificação de variantes (ClinVar)
Distribuição de 3,472 variantes classificadas pelo ClinVar.
Vias biológicas (Reactome)
4 vias biológicas associadas aos genes desta condição.
Diagnóstico
Os sinais que médicos procuram e os exames que confirmam
Tratamento e manejo
Remédios, cuidados de apoio e o que precisa acompanhar
Onde tratar no SUS
Hospitais de referência no Brasil e o protocolo oficial do SUS (PCDT)
🇧🇷 Atendimento SUS — Epilepsia temporal, familiar
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Dados de DATASUS/CNES, SBGM, ABNeuro e Ministério da Saúde. Sempre confirme a disponibilidade diretamente com o estabelecimento.
Pesquisa ativa
Ensaios clínicos abertos e novidades científicas recentes
Ensaios em destaque
Pesquisa e ensaios clínicos
0 ensaios clínicos encontrados.
Publicações mais relevantes
Identification of autosomal dominant lateral temporal epilepsy caused by a novel mutation in RELN in China: a case report.
Temporal lobe epilepsy is the most common type of focal epilepsy, but hereditary factors are usually overlooked. Reelin (RELN) is considered to be the second most common pathogenic gene implicated in autosomal dominant lateral temporal epilepsy (ADLTE). However, this mutation is not frequently discovered in the Chinese population. Additionally, there are few clinical studies regarding the connection between RELN and glioma. The healthcare records of an 8-year-old child who experienced generalized tonic-clonic seizures (GTCS) during sleep for 7 years were retrospectively analyzed. In addition to experiencing his first seizure at the age of one, his mother also suffered from GTCS during her pregnancy, and a glioma was discovered. An investigation involving gene sequencing was conducted on the proband and his parents. He was diagnosed with ADLTE once a missense mutation in RELN (c.1799 C > T) was identified as the causal factor. The mutation was inherited from his mother. He was taking levetiracetam (500 mg twice a day) to avoid seizures, but his mother died of status epilepticus caused by glioma recurrence two years earlier. Genetic issues should be given more consideration in cases of temporal lobe epilepsy. If the source of the seizures is determined to be inherited, anti-seizure medications should be used for prolonged periods. Furthermore, more research is required to determine whether mutations in RELN are related to the occurrence and progression of gliomas.
A reverse genetics and genomics approach to gene paralog function and disease: Myokymia and the juxtaparanode.
The leucine-rich glioma-inactivated (LGI) family consists of four highly conserved paralogous genes, LGI1-4, that are highly expressed in mammalian central and/or peripheral nervous systems. LGI1 antibodies are detected in subjects with autoimmune limbic encephalitis and peripheral nerve hyperexcitability syndromes (PNHSs) such as Isaacs and Morvan syndromes. Pathogenic variations of LGI1 and LGI4 are associated with neurological disorders as disease traits including familial temporal lobe epilepsy and neurogenic arthrogryposis multiplex congenita 1 with myelin defects, respectively. No human disease has been reported associated with either LGI2 or LGI3. We implemented exome sequencing and family-based genomics to identify individuals with deleterious variants in LGI3 and utilized GeneMatcher to connect practitioners and researchers worldwide to investigate the clinical and electrophysiological phenotype in affected subjects. We also generated Lgi3-null mice and performed peripheral nerve dissection and immunohistochemistry to examine the juxtaparanode LGI3 microarchitecture. As a result, we identified 16 individuals from eight unrelated families with loss-of-function (LoF) bi-allelic variants in LGI3. Deep phenotypic characterization showed LGI3 LoF causes a potentially clinically recognizable PNHS trait characterized by global developmental delay, intellectual disability, distal deformities with diminished reflexes, visible facial myokymia, and distinctive electromyographic features suggestive of motor nerve instability. Lgi3-null mice showed reduced and mis-localized Kv1 channel complexes in myelinated peripheral axons. Our data demonstrate bi-allelic LoF variants in LGI3 cause a clinically distinguishable disease trait of PNHS, most likely caused by disturbed Kv1 channel distribution in the absence of LGI3.
Molecular typing of familial temporal lobe epilepsy.
The pathogenesis of temporal lobe epilepsy (TLE) was originally considered to be acquired. However, some reports showed that TLE was clustered in some families, indicating a genetic etiology. With the popularity of genetic testing technology, eleven different types of familial TLE (FTLE), including ETL1-ETL11, have been reported, of which ETL9-ETL11 had not yet been included in the OMIM database. These types of FTLE were caused by different genes/Loci and had distinct characteristics. ETL1, ETL7 and ETL10 were characterized by auditory, visual and aphasia seizures, leading to the diagnosis of familial lateral TLE. ETL2, ETL3 and ETL6 showed prominent autonomic symptom and automatism with or without hippocampal abnormalities, indicating a mesial temporal origin. Febrile seizures were common in FTLEs such as ETL2, ETL5, ETL6 and ETL11. ETL4 was diagnosed as occipitotemporal lobe epilepsy with a high incidence of migraine and visual aura. Considering the diversity and complexity of the symptoms of TLE, neurologists enquiring about the family history of epilepsy should ask whether the relatives of the proband had experienced unnoticeable seizures and whether there is a family history of other neurological diseases carefully. Most FTLE patients had a good prognosis with or without anti-seizure medication treatment, with the exception of patients with heterozygous mutations of the CPA6 gene. The pathogenic mechanism was diverse among these genes and spans disturbances of neuron development, differentiation and synaptic signaling. In this article, we describe the research progress on eleven different types of FTLE. The precise molecular typing of FTLE would facilitate the diagnosis and treatment of FTLE and genetic counseling for this disorder.
A PIK3R2 Mutation in Familial Temporal Lobe Epilepsy as a Possible Pathogenic Variant.
Temporal lobe epilepsy (TLE), the most common form of medically refractory focal epilepsy in adults, often requires surgery to alleviate seizures. By using next-generation sequencing, we identified a PIK3R2 mutation (NM_005027.4: c.265C > T; NP_005018.2: p.Arg89Cys) in a family with mesial temporal lobe epilepsy. PIK3R2 encodes p85β, the regulatory subunit of Class IA phosphoinositide 3-kinase (PI3K) and the mutation we identified in PIK3R2 seems to function unexpectedly as a possible pathogenic variant. The mutation is predicted to be potentially pathogenic by multiple bioinformatics tools. Through a functional assay, we verified that the mutation enhances the function of PI3K in induced pluripotent stem cells (iPSCs) derived from peripheral blood mononuclear cells (PBMCs) of the proband. Finally, pathological testing of the resected temporal lobe cortex showed that the expression of PIK3R2 was significantly higher in patients with refractory temporal lobe epilepsy than in those of non-epileptic diseases as a control group. It can be inferred that PIK3R2 might play an important role in the development of TLE.
The clinical characters and gene detection in a familial temporal lobe epilepsy with auditory aura.
Auditory aura was the very important clinical character in familial temporal Lobe epilepsy. LGI1 was the main pathogenic gene. The inheritance mode of this disease was autosomal dominant. We describes the clinical characters and gene detection in 7 patients in a temporal lobe epilepsy family with auditory aura. All patients in this family were diagnosed as temporal lobe epilepsy and had the same mutation: the splice site mutation in No. 2 base of the intron after the first exon in gene LGI1, c.215+2T>A, which induced the abnormal expression of peptide protein after the No. 71 amino acid encoded by LGI1. Some of the antiepileptic drugs, such as carbamazepine, oxcarbazepine, could be effective.
Publicações recentes
Identification of autosomal dominant lateral temporal epilepsy caused by a novel mutation in RELN in China: a case report.
A reverse genetics and genomics approach to gene paralog function and disease: Myokymia and the juxtaparanode.
Molecular typing of familial temporal lobe epilepsy.
A PIK3R2 Mutation in Familial Temporal Lobe Epilepsy as a Possible Pathogenic Variant.
The clinical characters and gene detection in a familial temporal lobe epilepsy with auditory aura.
📚 EuropePMC25 artigos no totalmostrando 13
Identification of autosomal dominant lateral temporal epilepsy caused by a novel mutation in RELN in China: a case report.
Acta epileptologicaA reverse genetics and genomics approach to gene paralog function and disease: Myokymia and the juxtaparanode.
American journal of human geneticsMolecular typing of familial temporal lobe epilepsy.
World journal of psychiatryA PIK3R2 Mutation in Familial Temporal Lobe Epilepsy as a Possible Pathogenic Variant.
Frontiers in geneticsThe clinical characters and gene detection in a familial temporal lobe epilepsy with auditory aura.
Journal of clinical neuroscience : official journal of the Neurosurgical Society of Australasia[Familial temporal lobe epilepsy 5 with vestibular seizures (a case report)].
Zhurnal nevrologii i psikhiatrii imeni S.S. KorsakovaA Novel Nonsense Mutation in Leucine-Rich, Glioma-Inactivated-1 Gene as the Underlying Cause of Familial Temporal Lobe Epilepsy.
Journal of clinical neurology (Seoul, Korea)Molecular cloning and characterization of the family of feline leucine-rich glioma-inactivated (LGI) genes, and mutational analysis in familial spontaneous epileptic cats.
BMC veterinary researchFamilial temporal lobe epilepsy in the 19th century.
SeizureDe novo 12q22.q23.3 duplication associated with temporal lobe epilepsy.
SeizureTwo definite cases of sudden unexpected death in epilepsy in a family with a DEPDC5 mutation.
Neurology. GeneticsFamilial temporal lobe epilepsy due to focal cortical dysplasia type IIIa.
SeizureDEPDC5 mutations are not a frequent cause of familial temporal lobe epilepsy.
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Comunidades
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Referências e fontes
Bases de dados externas citadas neste artigo
Publicações científicas
Artigos indexados no PubMed ligados a esta doença no grafo RarasNet — título, periódico e PMID direto da fonte, sem intermediação de IA.
- Identification of autosomal dominant lateral temporal epilepsy caused by a novel mutation in RELN in China: a case report.
- A reverse genetics and genomics approach to gene paralog function and disease: Myokymia and the juxtaparanode.
- Molecular typing of familial temporal lobe epilepsy.
- A PIK3R2 Mutation in Familial Temporal Lobe Epilepsy as a Possible Pathogenic Variant.
- The clinical characters and gene detection in a familial temporal lobe epilepsy with auditory aura.Journal of clinical neuroscience : official journal of the Neurosurgical Society of Australasia· 2020· PMID 32035795mais citado
Bases de dados e fontes oficiais
Identificadores e referências canônicas usadas para montar este verbete.
- ORPHA:98819(Orphanet)
- MONDO:0005115(MONDO)
- Epilepsia(PCDT · Ministério da Saúde)
- GARD:5135(GARD (NIH))
- Variantes catalogadas(ClinVar)
- Busca completa no PubMed(PubMed)
- Q28065556(Wikidata)
Dados compilados pelo RarasNet a partir de fontes abertas (Orphanet, OMIM, MONDO, PubMed/EuropePMC, ClinicalTrials.gov, DATASUS, PCDT/MS). Este conteúdo é informativo e não substitui avaliação médica.
Conteúdo mantido por Agente Raras · Médicos e pesquisadores podem colaborar
