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Exposure to insecticides causes results about emergency, victim ingestion, and also histological modifications in the actual midgut with the fraudulent irritate, Podisus nigrispinus (Hemiptera: Pentatomidae).
OBJECTIVE To explore the genetic basis for a fetus with cleft lip and palate. METHODS Copy number variations (CNVs) in the fetus and his parents were detected with chromosomal microarray analysis (CMA). RESULTS As revealed by the CMA assay, the fetus has carried a 228 kb deletion in Xp11.22 region and a 721 kb duplication in 9p21.1. Both CNVs were inherited from the parents. The CNV in Xp11.22 was predicted to be pathogenic by involving the PHF8 gene, whilst the CNV in 9p21.1 was predicted to be benign. CONCLUSION Deletion of the Xp11.22 region probably underlies the cleft lip and palate in this fetus.OBJECTIVE To explore the genetic basis for a Chinese pedigree affected with split hand/foot malformation (SHFM). METHODS Genomic DNA of the proband and other affected members was extracted from peripheral blood samples. Chromosomal microarray analysis was employed to detect genome-wide copy number variations (CNVs). RESULTS A 400 kb microduplication was identified in the 10q24.31-q24.32 region among all affected individuals. The microduplication has involved four genes, namely LBX1, BTRC, POLL and DPCD, in addition with part of FBXW4 gene. CONCLUSION The 10q24.31-q24.32 microduplication has segregated with the disease phenotype in this pedigree and probably underlay the SHFM malformation in the patients.OBJECTIVE To analyze the clinical feature of a fetus with split hand-foot malformation (SHFM) and to explore its etiology. METHODS Ultrasonographic finding of the fetus and X-ray examination of the abortus were reviewed. ISA-2011B Genomic copy number variations (CNVs) of the fetus was analyzed by next-generation sequencing (NGS). Its parents were subjected to chromosomal karyotyping, NGS and fluorescence in situ hybridization (FISH) assays. Real-time fluorescence quantitative PCR was used to measure the expression of genes from the region containing abnormal CNVs. RESULTS Ultrasonography and X-ray revealed that the right hand and both feet of the fetus were in a V-shape, which was suggestive of SFHM. The results of NGS revealed that the fetus has carried a 0.36 Mb deletion at 7q21.3 region. FISH and NGS analysis of both parents were normal. Real-time fluorescence quantitative PCR confirmed that the fetus carried a single copy of DYNC1I1 gene, while the copy numbers of SEM1, DLX5 and DLX6 genes were normal. CONCLUSION The 7q21.3 microdeletion probably underlies the SHFM of the fetus, which has a de novo origin.OBJECTIVE To explore the genetic basis for a child featuring delayed intellectual development. METHODS The child and his parents were subjected to conventional G-banding karyotyping and single nucleotide polymorphism array (SNP-array) analysis. Suspected copy number variations (CNVs) were verified in both parents. RESULTS No karyotypic abnormality was found with the child and his parents. SNP-array results for both parents were normal. The child was found to harbor a de novo 172 kb deletion at 18q21.2 with a physical position of 52 957 042-53 129 237. The deletion only involved one OMIM gene, namely TCF4, resulting in removal of its exons 6 to 8. CONCLUSION The SNP-array assay has facilitated with the diagnosis of this child. Deletion of 18q21.2 region probably accounts for the Pitt-Hopkins syndrome (PTHS) in this patient.OBJECTIVE To explore the clinical characteristics and genetic variants in a child with tyrosine hydroxylase-deficient infantile Parkinsonism with motor delay. METHODS Clinical feature of the patient was summarized. Genomic DNA was extracted from peripheral blood samples taken from the child and her family members. All exons of GCH1, TH and SPR genes were subjected to targeted capture and next-generation sequencing. Suspected variants were verified by Sanger sequencing. RESULTS The child could not sit alone at 7 month and 11 days. Physical examination suggested motor retardation and hypotonia, limb stiffness, head nodding, slight torticollis, and language and intellectual developmental delays. She developed involuntary shaking of limbs at 3 month old, which lasted approximately 10 seconds and aggregated with excitement and before sleeping. Cranial MRI revealed widening of subarachnoid space on the temporomandibular and particularly temporal sides. Genetic testing revealed that she has carried a nonsense c.457C>T (p.R153X) variant, which was known to be pathogenic, and a novel missense c.720C>G (p.I240M) variant of the TH gene. The two variants were derived from her father and mother, respectively. CONCLUSION The child was diagnosed as tyrosine hydroxylase-deficient infantile Parkinsonism with motor delay due to compound heterozygous variants of the TH gene. Above finding has enriched the spectrum of TH gene variants.OBJECTIVE To explore the clinical and genetic features of a patient with mental retardation. METHODS G-Banding chromosomal karyotyping and high-throughput sequencing was carried out for the child. Suspected variant was validated in his family by Sanger sequencing and bioinformatic analysis. RESULTS The patient was found to carry a de novo heterozygous c.4090G>T (p.Gly1364X) variant of the ASXL3 gene, which was known to predispose to Bainbridge-Ropers syndrome. CONCLUSION The nonsense c.4090G>T (p.Gly1364X) variant probably accounts for the disease in this patient.OBJECTIVE To detect pathogenic variant in a neonate suspected for Cornelia de Lange syndrome (CdLS). METHODS Potential mutations of CdLS-related genes (NIPBL, SMC1A, SMC3, RAD21 and HDAC8) were detected by high-throughput target region capture and next-generation sequencing. Suspected variants was verified by Sanger sequencing. RESULTS The child was found to harbor a heterozygous splice site variant, c.6109-1G>A, of the NIPBL gene. Sanger sequencing suggested that neither parent has carried the same variant, suggesting that it was de novo. The variant was unreported by HGMD and ExAC database, and was predicted to alter an acceptor splicing site. No pathogenic variants of SMC1A, SMC3, RAD21 and HDAC8 genes were detected. CONCLUSION The heterozygous c.6109-1G>A splicing variant of the NIPBL gene may underlie the disease in this child. Above finding has expanded the variant spectrum of the NIPBL gene.
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