Symptomatic care of late-onset Alexander disease presenting with area postrema-like syndrome with prednisolone; a case report

被引:2
作者
Zardadi, Safoura [1 ,2 ]
Razmara, Ehsan [2 ,3 ]
Rasoulinezhad, Maryam [4 ]
Babaei, Meisam [5 ]
Ashrafi, Mohammad Reza [4 ]
Pak, Neda [6 ]
Garshasbi, Masoud [3 ]
Tavasoli, Ali Reza [4 ]
机构
[1] Islamic Azad Univ, Dept Biol, Sch Basic Sci, Sci & Res Branch, Tehran, Iran
[2] Monash Univ, Australian Regenerat Med Inst, Clayton, Vic 3800, Australia
[3] Tarbiat Modares Univ, Dept Med Genet, Fac Med Sci, Tehran, Iran
[4] Univ Tehran Med Sci, Myelin Disorders Clin, Div Pediat Neurol, Childrens Med Ctr,Pediat Ctr Excellence, Tehran, Iran
[5] North Khorasan Univ Med Sci, Dept Pediat, Bojnurd, Iran
[6] Univ Tehran Med Sci, Pediat Radiol Div, Childrens Med Ctr, Pediat Ctr Excellence, Tehran, Iran
关键词
Alexander disease; AxD type II; GFAP; Vomiting; Steroid; GFAP MUTATIONS; INFANTILE;
D O I
10.1186/s12887-022-03468-y
中图分类号
R72 [儿科学];
学科分类号
100202 ;
摘要
Background Alexander disease (AxD) is classified into AxD type I (infantile) and AxD type II (juvenile and adult form). We aimed to determine the potential genetic cause(s) contributing to the AxD type II manifestations in a 9-year-old male who presented area postrema-like syndrome and his vomiting and weight loss improved after taking prednisolone. Case presentation A normal cognitive 9-year-old boy with persistent nausea, vomiting, and a significant weight loss at the age of 6 years was noticed. He also experienced an episode of status epilepticus with generalized atonic seizures. He showed non-febrile infrequent multifocal motor seizures at the age of 40 days which were treated with phenobarbital. He exhibited normal physical growth and neurologic developmental milestones by the age of six. Occasionally vomiting unrelated to feeding was reported. Upon examination at 9 years, a weak gag reflex, prominent drooling, exaggerated knee-deep tendon reflexes (3+), and nasal tone speech was detected. All gastroenterological, biochemical, and metabolic assessments were normal. Brain magnetic resonance imaging (MRI) revealed bifrontal confluent deep and periventricular white matter signal changes, fine symmetric frontal white matter and bilateral caudate nucleus involvements with garland changes, and a hyperintense tumefactive-like lesion in the brain stem around the floor of the fourth ventricle and area postrema with contrast uptake in post-contrast T1-W images. Latter MRI at the age of 8 years showed enlarged area postrema lesion and bilateral middle cerebellar peduncles and dentate nuclei involvements. Due to clinical and genetic heterogeneities, whole-exome sequencing was performed and the candidate variant was confirmed by Sanger sequencing. A de novo heterozygous mutation, NM_001242376.1:c.262 C > T;R88C in exon 1 of the GFAP (OMIM: 137,780) was verified. Because of persistent vomiting and weight loss of 6.0 kg, prednisolone was prescribed which brought about ceasing vomiting and led to weight gaining of 3.0 kg over the next 3 months after treatment. Occasional attempts to discontinue prednisolone had been resulting in the reappearance of vomiting. Conclusions This study broadens the spectrum of symptomatic treatment in leukodystrophies and also shows that R88C mutation may lead to a broad range of phenotypes in AxD type II patients.
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页数:5
相关论文
共 20 条
[1]   An update on clinical, pathological, diagnostic, and therapeutic perspectives of childhood leukodystrophies [J].
Ashrafi, Mahmoud Reza ;
Amanat, Man ;
Garshasbi, Masoud ;
Kameli, Reyhaneh ;
Nilipour, Yalda ;
Heidari, Morteza ;
Rezaei, Zahra ;
Tavasoli, Ali Reza .
EXPERT REVIEW OF NEUROTHERAPEUTICS, 2020, 20 (01) :65-84
[2]  
Ashrafi MR, 2013, IRAN J PEDIATR, V23, P481
[3]   Glial fibrillary acidic protein (GFAP) and the astrocyte intermediate filament system in diseases of the central nervous system [J].
Hol, Elly M. ;
Pekny, Milos .
CURRENT OPINION IN CELL BIOLOGY, 2015, 32 :121-130
[4]   Histone acetylation in astrocytes suppresses GFAP and stimulates a reorganization of the intermediate filament network [J].
Kanski, Regina ;
Sneeboer, Marjolein A. M. ;
van Bodegraven, Emma J. ;
Sluijs, Jacqueline A. ;
Kropff, Wietske ;
Vermunt, Marit W. ;
Creyghton, Menno P. ;
De Filippis, Lidia ;
Vescovi, Angelo ;
Aronica, Eleonora ;
van Tijn, Paula ;
van Strien, Miriam E. ;
Hol, Elly M. .
JOURNAL OF CELL SCIENCE, 2014, 127 (20) :4368-4380
[5]   Inflammatory neuropathology of infantile Alexander disease: A case report [J].
Kora, Kengo ;
Kato, Takeo ;
Ide, Minako ;
Tanaka, Takayuki ;
Yoshida, Tomokatsu .
BRAIN & DEVELOPMENT, 2020, 42 (01) :64-68
[6]   Glial fibrillary acidic protein mutations in infantile, juvenile, and adult forms of Alexander disease [J].
Li, R ;
Johnson, AB ;
Salomons, G ;
Goldman, JE ;
Naidu, S ;
Quinlan, R ;
Cree, B ;
Ruyle, SZ ;
Banwell, B ;
D'Hooghe, M ;
Siebert, JR ;
Rolf, CM ;
Cox, H ;
Reddy, A ;
Gutiérrez-Solana, LG ;
Collins, A ;
Weller, RO ;
Messing, A ;
van der Knaap, MS ;
Brenner, M .
ANNALS OF NEUROLOGY, 2005, 57 (03) :310-326
[7]   The role of gigaxonin in the degradation of the glial-specific intermediate filament protein GFAP [J].
Lin, Ni-Hsuan ;
Huang, Yu-Shan ;
Opal, Puneet ;
Goldman, Robert D. ;
Messing, Albee ;
Perng, Ming-Der .
MOLECULAR BIOLOGY OF THE CELL, 2016, 27 (25) :3980-3990
[8]   Strategies for Treatment in Alexander Disease [J].
Messing, Albee ;
Daniels, Christine M. LaPash ;
Hagemann, Tracy L. .
NEUROTHERAPEUTICS, 2010, 7 (04) :507-515
[9]   Astrocyte pathology in Alexander disease causes a marked inflammatory environment [J].
Olabarria, Markel ;
Putilina, Maria ;
Riemer, Ellen C. ;
Goldman, James E. .
ACTA NEUROPATHOLOGICA, 2015, 130 (04) :469-486
[10]   INFANTILE ALEXANDER DISEASE WITH LATE ONSET INFANTILE SPASMS AND HYPSARRHYTHMIA [J].
Paprocka, J. ;
Rzepka-Migut, B. ;
Rzepka, N. ;
Jezela-Stanek, A. ;
Morava, E. .
BALKAN JOURNAL OF MEDICAL GENETICS, 2019, 22 (02) :77-81