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Obituary for Dr. Robert L. Brent. 罗伯特·布伦特医生的讣告。
Pub Date : 2021-05-01 DOI: 10.1111/cga.12419
M. Yasuda
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引用次数: 1
Tracheal cartilaginous sleeve in patients with Beare‐Stevenson syndrome Beare - Stevenson综合征患者的气管软骨套
Pub Date : 2020-05-01 DOI: 10.1111/cga.12352
Eijun Seki, Keisuke Enomoto, K. Tanoue, Mio Tanaka, K. Kurosawa
Tracheal cartilaginous sleeve (TCS), a life-threatening malformation in patients with craniosynostosis syndromes, is a solid cartilaginous tube lacking the pars membranacea, caused by defective C-shaped tracheal rings. Without tracheostomy, it has a 90% mortality by 2 years. Beare-Stevenson syndrome (BSS) is a distinct craniosynostosis syndrome characterized by cutis gyrata. BSS is caused by one of two specific gain-of-function mutations of FGFR2, including p.Y375C and p.S372C (Supporting information Reference S1). Studies attribute the high mortality of BSS to respiratory distress, secondary to TCS, and other unexplained factors. However, in most BSS patients, the mechanism by which TCS causes sudden death remains unknown. To increase knowledge regarding TCS and Chiari malformation for respiratory distress in BSS, we report two cases with BSS and TCS. Patient 1 was the second child of healthy Japanese parents. After birth, she was intubated for severe respiratory failure caused by airway obstruction and choanal stenosis. Chest computed tomography (CT) and bronchoscopy showed dorsal recession of the tracheal internal wall, suggesting TCS (Figure 1A). She underwent ventriculoperitoneal (VP)-shunt placement; tracheostomy owing to choanal stenosis and glossoptosis; conventional cranioplasty with fronto-orbital advancement for anterior part expansion; and decompression for Chiari malformation, which had resulted in hydrocephaly, at 1, 2, 3, and 10 months, respectively. Thereafter, she was followed with oxygen therapy. At 5 years, she developed severe sleep apnea. A polysomnography (PSG) showed severe central sleep apnea with apnea hypoxia index (AHI) 140/h and SpO2 nadir 74%. Although bronchoscopy showed improvements in the tracheal wall abnormality, spinal magnetic resonance imaging revealed a hyper-intense signal at the C2 level (Figure 1B). She underwent additional decompression and required mechanical ventilation during sleep. Genetic analysis revealed a pathogenic FGFR2 variant c.1124A>G (p.Tyr375Cys). Currently, at 6 years of age, she can shuffle and requires mechanical ventilation during sleep. Patient 2 was the third child of healthy parents. His detailed clinical course in early childhood has been described previously. He underwent tracheostomy, owing to severe respiratory distress caused by choanal stenosis and epiglottis thickening; VP-shunt placement; conventional cranioplasty with fronto-orbital advancement for anterior part expansion; and decompression for Chiari malformation, which had resulted in hydrocephaly, at 16 days and at 2, 8, and 18 months, respectively. The tracheostomy tube was custom-made and designed to elongate and get over the portion of TCS. At age 10, he developed obstructive respiratory distress. Chest CT showed tracheostomy tube obstruction by a TCS-related dented deformity (Figure 1C). At 12 years of age, he died suddenly after respiratory distress caused by tracheostomy tube obstruction. The tip of the tracheostomy
气管软骨套(TCS)是由c形气管环缺陷引起的缺乏膜部的实心软骨管,是颅缝闭塞综合征患者中一种危及生命的畸形。如果不进行气管切开术,2年后的死亡率为90%。贝尔-史蒂文森综合征(BSS)是一种独特的颅缝闭锁综合征,其特征是皮肤旋转。BSS是由FGFR2两种特异性功能获得突变之一引起的,包括p.Y375C和p.S372C(支持信息参考文献S1)。研究将BSS的高死亡率归因于继发于TCS的呼吸窘迫和其他无法解释的因素。然而,在大多数BSS患者中,TCS引起猝死的机制尚不清楚。为了提高对TCS和Chiari畸形对BSS呼吸窘迫的认识,我们报告了两例BSS和TCS。患者1是一对健康的日本父母的第二个孩子。出生后,她因气道阻塞和后鼻孔狭窄导致严重呼吸衰竭而插管。胸部计算机断层扫描(CT)和支气管镜检查显示气管内壁背侧退缩,提示TCS(图1A)。她接受了脑室-腹膜(VP)分流放置;因后鼻孔狭窄和光泽度增高而行气管切开术;常规额眶前进颅骨成形术治疗前肢扩张;并分别在1、2、3和10个月时对导致脑积水的基亚里畸形进行减压。此后,她接受了氧气治疗。5岁时,她患上了严重的睡眠呼吸暂停症。多导睡眠图(PSG)显示重度中枢性睡眠呼吸暂停,呼吸暂停缺氧指数(AHI) 140/h, SpO2最低点74%。尽管支气管镜检查显示气管壁异常有所改善,但脊髓磁共振成像显示C2水平有高信号(图1B)。她在睡眠期间接受了额外的减压和机械通气。遗传分析显示FGFR2致病性变异c.1124A>G (p.Tyr375Cys)。目前,她6岁了,可以走路,睡觉时需要机械通气。患者2是健康父母的第三个孩子。他在儿童早期的详细临床过程已在前面描述过。由于后肛门狭窄和会厌增厚导致严重呼吸窘迫,他接受了气管切开术;VP-shunt位置;常规额眶前进颅骨成形术治疗前肢扩张;并分别于16天和2、8、18个月对导致脑积水的基亚里畸形进行减压。气管造口管是定制的,设计用于延长和越过TCS部分。10岁时,他出现了阻塞性呼吸窘迫。胸部CT显示气管造口管阻塞,tcs相关凹陷畸形(图1C)。12岁时,他因气管造口术引起的呼吸窘迫而突然死亡。气管造口管尖端造成气管壁损伤,形成凹痕畸形。气管造口尖端堆积到凹陷畸形中被认为可能是导致呼吸窘迫的原因。尸检显示,凹痕畸形是由气管造口管长期损伤、宏观和显微镜下气管壁软骨岛畸形和炎症所致(图1D-F)。遗传分析鉴定出致病性FGFR2变异c.1115C>G (p.Ser372Cys)。TCS在fgfr2相关颅缝闭锁综合征中广泛观察到。Tiozzo等人在2019年3月2日发表的论文中证实了TCS的潜在机制涉及Fgf10的表达失调
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引用次数: 3
Altered neuronal activity in the auditory brainstem following sound stimulation in thalidomide‐induced autism model rats 沙利度胺诱发自闭症模型大鼠听觉脑干神经元活动的改变
Pub Date : 2020-05-01 DOI: 10.1111/cga.12353
L. E. Tsugiyama, Michiru Ida-Eto, Takeshi Ohkawara, Y. Noro, M. Narita
Auditory hypersensitivity in autism is frequently observed in clinics. Dysfunction in the auditory brainstem has been suspected. We have established autism model rats using prenatal thalidomide exposure. Here we investigated whether abnormal response occurs in the brainstem following sound stimulus in autism model rats. Autism model rats were prepared by prenatal exposure to thalidomide on embryonic days 9 and 10 in pregnant rats. Then, the animals were exposed to 16‐kHz pure tone auditory stimulus and c‐Fos immunostaining was performed to examine the neuronal activity on postnatal day 49 to 51. Following sound stimulus, increased number of c‐Fos‐positive neurons was observed in the medial nucleus of the trapezoid body of autism model rats compared with the control rats. These results suggest that prenatal thalidomide might cause altered processing of auditory stimulus, leading to the characteristics of auditory hypersensitivity in autism.
自闭症患者的听觉超敏反应在临床上经常被观察到。听觉脑干功能障碍已被怀疑。我们利用产前沙利度胺暴露建立了自闭症模型大鼠。我们研究了自闭症模型大鼠在声音刺激后脑干是否发生异常反应。在妊娠大鼠胚胎第9天和第10天,通过产前暴露沙利度胺制备自闭症模型大鼠。然后,将小鼠置于16 kHz纯音听觉刺激下,并在出生后第49 - 51天进行c - Fos免疫染色检测神经元活动。声音刺激后,自闭症模型大鼠梯形体内侧核的c‐Fos‐阳性神经元数量明显高于对照大鼠。这些结果表明,产前沙利度胺可能导致听觉刺激处理的改变,导致自闭症的听觉超敏特征。
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引用次数: 6
A female patient with X‐linked Ohdo syndrome of the Maat‐Kievit‐Brunner phenotype caused by a novel variant of MED12 一名由MED12新变异引起的Maat - Kievit - Brunner表型X连锁Ohdo综合征女性患者
Pub Date : 2020-05-01 DOI: 10.1111/cga.12350
Hiroaki Murakami, Yumi Enomoto, Y. Tsurusaki, Y. Sugio, K. Kurosawa
MED12 is a component of the large multiprotein Mediator complex. MED12 variants have been linked to three different X-linked intellectual disability (ID) syndromes, including Ohdo syndrome of the Maat-Kievit-Brunner phenotype (OSMKB), Opitz-Kaveggia (FG) syndrome, and Lujan-Fryns syndrome (LFS). This article is protected by copyright. All rights reserved.
MED12是大型多蛋白介质复合物的一个组成部分。MED12变异与三种不同的x连锁智力残疾(ID)综合征有关,包括Maat-Kievit-Brunner表型的Ohdo综合征(OSMKB)、Opitz-Kaveggia综合征(FG)和Lujan-Fryns综合征(LFS)。这篇文章受版权保护。版权所有。
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引用次数: 18
Low‐prevalence mosaicism of chromosome 18q distal deletion identified by exome‐based copy number profiling in a child with cerebral hypomyelination 通过基于外显子组的拷贝数分析,在脑髓鞘发育低下的儿童中鉴定了染色体18q远端缺失的低患病率镶嵌现象
Pub Date : 2020-05-01 DOI: 10.1111/cga.12351
T. Shiohama, M. Nakashima, Hajime Ikehara, Mitsuhiro Kato, H. Saitsu
Partial deletions of chromosome 18q distal lead to diverse congenital dysmorphic features such as hypomyelination short stature cleft lip and palate foot deformity and aural atresia. In contrast mosaicism of 18q distal deletion is a rarer situation with a highly variable phenotype, leading to clinical diagnostic challenges A Japanese female was born at term with no asphyxia. Her family history was unremarkable. At 5 months of age, the patient was admitted due to no head control. Physical examination revealed general muscle hypotonus, course face with hypertelorism, microcephaly (37.5 cm, −2.7SD), curly hair, lymphedema foot, short fifth fingers, and malposition of the first and the fifth foot digits. Gastrointestinal and urological examination revealed tubular anal duplication, right hydronephrosis, and vesicoureteral reflux. She subsequently presented focal epilepsy with the dominancy in the left upper limb and bilateral sensorineural hearing loss. Brain magnetic resonance imaging at 5 years of age showed complete agenesis of the corpus callosum (ACC) (Figure 1A) and diffuse cerebral hypomyelination (Figure 1B). At 10 years, she could sit supported, but say no words. G-banded analysis at 2 years of age showed a normal female karyotype (46,XX). We performed whole exome sequencing (WES) at 11 years of age. We could not find any possible pathogenic single nucleotide variants but found about 20 Mb deletion at 18q21.31-qter (chr18:56585841-77513763) by two copy number variants (CNVs) detection tools (Figure 1C,D). The quantitative polymerase chain reaction showed 0.8 of relative copy number ratio to a control sample. The FISH analysis using 18q unique probe showed two copy signal patterns in all the 10 lymphocytes prepared at 2 and 7 years. Finally, we evaluated the WES data by H3M2 program, a detection program of runs of homozygosity. In the normal two copy region, B allele frequency (BAF), the ratio between B-allele read counts and the total number of reads mapped to that position (A + B allele), showed three lines. Value of zero and 1.0 means homoor hemizygous for A and B alleles, respectively, and about 0.5 means heterozygous allele. However, in the deletion interval, BAF showed four lines, suggesting that two types of heterozygous alleles (mosaic A or B allele deletion in the A/B heterozygous allele) were present in this region (Figure 1D). Chromosomal microarray analysis (CytoScan HD Array, Affymetrix) showed arr[hg19] 18q21.2q23(51392374-78 014 123)x1-2 (Figure S1). Therefore, we concluded that this patient has the low-prevalence mosaic deletion of 18q21.2qter. The partial deletion on the chromosome 18q23 including myelin basic protein (MBP) and a galanin receptor (GALR1) is critically related to cerebral hypomyelination. Prior cohort studies reported that partial chromosome 18q deletion was identified in three of 26 patients with hypomyelination leukodystrophy, and none of 162 patients with ACC. Although the combination of cerebral hypomyelin
18q染色体远端部分缺失导致多种先天性畸形,如骨髓鞘发育低下、身材矮小、唇腭裂、足部畸形、耳闭锁等。相比之下,18q远端缺失的嵌合现象是一种罕见的情况,具有高度可变的表型,导致临床诊断挑战。她的家族史平平无奇。5个月大时,患者因头部无法控制而入院。体格检查显示全身性肌肉张力低下,course face伴远视,小头畸形(37.5 cm, - 2.7SD),卷发,足淋巴水肿,第五指短,第一和第五趾错位。胃肠和泌尿检查显示管状肛管重复,右侧肾积水和膀胱输尿管反流。她随后出现以左上肢为主的局灶性癫痫和双侧感音神经性听力丧失。5岁时的脑磁共振成像显示胼胝体(ACC)完全发育不全(图1A)和弥漫性脑髓鞘退化(图1B)。10岁时,她可以坐着,但不会说话。2岁时g带分析显示为正常女性核型(46,XX)。我们在11岁时进行全外显子组测序(WES)。我们没有发现任何可能的致病性单核苷酸变异,但通过两种拷贝数变异(CNVs)检测工具在18q21.31-qter (chr18:56585841-77513763)发现约20 Mb的缺失(图1C,D)。定量聚合酶链反应与对照样品的相对拷贝数比为0.8。使用18q独特探针的FISH分析显示,在2岁和7岁时制备的所有10个淋巴细胞中都有两种拷贝信号模式。最后,我们使用H3M2程序对WES数据进行评估,H3M2程序是一种纯合子序列检测程序。在正常双拷贝区,B等位基因频率(BAF),即B等位基因读取数与映射到该位置(A + B等位基因)的总读取数之比显示为3行。A和B等位基因的值分别为0和1.0,约为0.5表示等位基因的杂合。然而,在缺失区间,BAF显示4行,表明该区域存在两种类型的杂合等位基因(A/B杂合等位基因中的马赛克A或B等位基因缺失)(图1D)。染色体微阵列分析(CytoScan HD Array, Affymetrix)显示arr[hg19] 18q21.2q23(51392374-78 014 123)x1-2(图S1)。因此,我们得出结论,该患者具有18q21.2qter的低患病率镶嵌缺失。染色体18q23上包括髓鞘碱性蛋白(MBP)和甘丙氨酸受体(GALR1)的部分缺失与脑髓鞘退化密切相关。先前的队列研究报道,26例低髓鞘性白质营养不良患者中有3例发现部分染色体18q缺失,162例ACC患者中没有发现。虽然在包括9型桥小脑发育不全(由AMPD2变异引起)在内的几种先天性疾病中观察到脑髓鞘过浅症和ACC的合并,但甘氨酸脑病。收件日期:2019年2月6日修订:2019年6月24日接受:2019年7月13日DOI: 10.1111/cga.12351
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引用次数: 3
THE 59TH ANNUAL MEETING OF THE JAPANESE TERATOLOGY SOCIETY THE 13TH WORLD CONGRESS OF THE INTERNATIONAL CLEFT LIP AND PALATE FOUNDATION - CLEFT 2019. 日本畸胎学学会第59届年会暨国际唇腭裂基金会第13届世界大会- cleft 2019。
Pub Date : 2019-11-01 DOI: 10.1111/cga.12359
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引用次数: 1
Reviewers 评论家
Pub Date : 2019-11-01 DOI: 10.1111/cga.12360
Asselain, Bernard. Atsushi, Narita. Aydin, Emine. Azab, Belal. Baba, Otto. Bergman, Jorieke E. H. Borg, Isabella. Bragg, DC. Crofton, Kevin. Dastgiri, Saeed. Endo, Masayuki. Fujiwara, Michio. Hashemi, Mohammad. Hashizume, Naoki. Hashizume, Naoki. Horimoto, Masao. Hoshi, Nobuhiko. Imoto, I. Imura, Hideto. Io, Shingo. Iseki, Sachiko. Itoh, Motoyuki. Johnston, JJ. Kaname, Tadashi. Kanda, Yasunari. Kikuchi, Norihiko. Kohno, Miyuki. Kondo, Atsuo. Kondo, Eiji. Kosaki, Rika. Kosho, Tomiki. Kumamoto, Takayuki. Kuroda, Yukiko. Kurosawa, Kenji. Lamers, Wouter. López Camelo, Jorge. Matsuo, Mari. Matsuo, Takuya. Mineshima, Hiroshi. Miyake, Hidehiko. Mizuguchi, Masashi. Moslehi, Roxana. Nakajima, Takayuki. Nakajima, Yuji. Nakamura, Yasushi. Nakanishi, Tsuyoshi. Nakata, Hiroki. Narita, Masaaki. Naruse, Katsuhiko. Naseer, Muhammad. Nelson, Pace. Nemoto, Takahiro. Niihori, Tetsuya. Ninomiya, Shinsuke. Nishijyo, Muneko. Numabe, Hironao. Obara, Taku. Okamoto, Nobuhiko. Osaka, Hitoshi. Otani, Hiroki. Özel, Ş. Ozgu-Erdinc, A. Seval. Park, JH. Patil, Siddaramappa. Pooh, Ritsuko. Saito, Shinji. Saitsu, Hirotomo. Seto, Toshiyuki. Shahid, Ramla. Shimizu, Kenji. Shimojima, Keiko. Shiota, Kohei. Stankiewicz, Pawel. Takenouchi, Toshiki. Tsuji, Ryozo. Umair, Muhammad. Van Gemert, Martin J.C. Wada, Takahito. Wenger, Tara L. Wilson, R. Douglas. Wu, Wei-Li. Yamada, Shigehito. Yamada, T. Yamamoto, Toshiyuki. Yoshihashi, Hiroshi. DOI: 10.1111/cga.12360
Asselain,伯纳德。寿司,成田。Aydin,艾米。厄运,Belal。爸爸,奥托。伯格曼,Jorieke E. H. Borg,伊莎贝拉。布拉格,DC。燃烧,凯文。Dastgiri,赛义德。Endo, Masayuki。藤原,宫崎骏。穆罕默德·拉夫,。Hashizume,直树。Hashizume,直树。Horimoto, Masao。Hoshi, Nobuhiko。Imoto, I. Imura, Hideto。Io, Shingo。Iseki,幸子。藤,Motoyuki。约翰斯顿,JJ。Kaname,泰迪。神田,川端康成。菊池,Norihiko。Kohno,鸠山幸。近藤,Atsuo。近藤,Eiji。小崎,丽。Kosho, Tomiki。熊本,贵。黑田东彦,Yukiko。黑泽明,健二。Lamers, Wouter。洛佩兹·卡梅洛,豪尔赫。Matsuo,来吧。Matsuo, Takuya。Mineshima,浩。Miyake, Hidehiko。Mizuguchi,正人。Moslehi,罗克珊娜。中岛,贵。中岛,宇治。中村,靖。Nakanishi,失踪。东田,大辉。成田,Masaaki。Naruse,胜。纳西尔,穆罕默德。尼尔森,佩斯。Nemoto, Takahiro。Niihori,哲也。九宫,新助。Nishijyo, Muneko。Numabe, Hironao。奥巴拉,害怕。冈本,Nobuhiko。大阪,仁。浅井,大辉。Ozel,Ş。ozgu erdinc, A. Seval。公园,JH。帕蒂尔,Siddaramappa大。维尼,立子。齐藤,真嗣。Saitsu, Hirotomo。濑户,Toshiyuki。Shahid, Ramla。清水,健二。Shimojima,惠子。作品,Kohei。Stankiewicz, Pawel。Takenouchi, Toshiki。Tsuji, Ryozo。Umair,穆罕默德。范·哈福德,马丁·j.c. Wada, Takahito。温格,塔拉·L·威尔逊,R·道格拉斯。吴,Wei-Li。山田,Shigehito。山田,山本T,俊之。Yoshihashi,浩。DOI: 10。1111 - cga 12360
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引用次数: 0
What we should do for the future of children—A report on the Joint Meeting of the 59th Annual Meeting of the Japanese Teratology Society and the 13th World Congress of the International Cleft Lip and Palate Foundation‐CLEFT 2019 我们应该为孩子的未来做些什么——第59届日本畸形学会年会暨国际唇腭裂基金会第13届世界大会联席会议报告——Cleft 2019
Pub Date : 2019-10-08 DOI: 10.1111/cga.12355
N. Natsume
The Joint Meeting of the 59th Annual Meeting of the Japanese Teratology Society and the 13th World Congress of the International Cleft Lip and Palate Foundation—CLEFT 2019—was held at Meijo-Koen Campus of Aichi Gakuin University in Nagoya, Aichi in Japan, from 26 to 29 July 2019. The main theme of the meeting was advocated to be “For the Future of Children.—Disseminating a philosophy of “Medicine is Jinjutsu” from Japan to the world.” And for the meeting, the following topics were suggested: (a) What you can do to protect the lives of fetuses, (b) Treatment and research for congenital anomalies.—Introduce the delicate skills and techniques and the latest research from Japan, (c) Current status and outlook for international medical assistance in congenital anomalies.—Dissemination the philosophy of “Medicine is Jinjutsu (a benevolent art),” (d) The role of monitoring of congenital anomalies in Japan.—Including the data of “Fukushima” after the 2011 nuclear accident, (e) Possible roles of the folic acid for prevention of congenital anomalies. We appointed Mr. Akihisa Mizuno (President, Japanese Cleft Palate Foundation; Chairman of the Board of Directors, Chubu Electric Power Co., Inc.) as the Honorary Congress President and Prof. Nagato Natsume (Director, Cleft Lip and Palate Center Aichi Gakuin University Hospital; Professor, Division of Research and Treatment for Oral and Maxillofacial Congenital Anomalies, Aichi Gakuin University) as the Congress President. As Vice Congress Presidents, Prof. Yuri Fujiwara (Department of Speech-Language-Hearing Therapy, Osaka Health Science University), Prof. Koichi Ueda (Department of Plastic and Reconstructive Surgery, Osaka Medical College), Prof. Noriaki Yoshida (Department of Orthodontics and Dentofacial Orthopedics, Nagasaki University), Dr. Jun Takebe (Department of Removable Prosthodontics, Aichi Gakuin University) were appointed. Dr. Hideto Imura and Dr. Toko Hayakawa acted as Chairs of the Preparatory Committee, and Dr. Masaaki Ito played a role of the Vice Chair of the Preparatory Committee (Figure 1). The joint meeting has gotten 723 participants from a total of 41 countries and regions. The countries and regions included Belgium, Cambodia, Chile, China, Czech Republic, Ecuador, Egypt, Ethiopia, Finland, Germany, Hong Kong Special Administrative Region of China, India, Indonesia, Iraq, Israel, Kuwait, Lao PDR, Mexico, Mongolia, Mozambique, Myanmar, Nigeria, Pakistan, Philippines, Republic of Korea, Russian Federation, Singapore, South Africa, Spain, Sri Lanka, Sudan, Taiwan, Thailand, Tunisia, Turkey, Ukraine, United Kingdom of Great Britain and Northern Ireland, United States of America, Uzbekistan, and Viet Nam (Figure 1). The number of presentations counted 323 titles. The Presidential Lecture was titled “Dedicating my life to treat cleft lip and palate with deep appreciation to ICPF and JTS.” The program included seven other Special Lectures: “Towards establishment of “Embryatrics”; revisited and
2019年7月26日至29日,第59届日本畸形学会年会暨第13届国际唇腭裂基金会世界大会(Cleft 2019)联合会议在日本爱知县名古屋爱知县学院大学meiko - koen校区举行。会议的主题是“为了儿童的未来”。——从日本向世界传播“医学就是真术”的哲学。会议建议的主题如下:(a)如何保护胎儿的生命;(b)先天性畸形的治疗和研究。-介绍日本的精湛技术和最新研究成果;(c)先天性畸形国际医疗援助的现状和前景。-传播“医学是仁慈的艺术”的哲学;(d)在日本监测先天性异常的作用。-包括2011年核事故后的“福岛”数据,(e)叶酸对预防先天性异常的可能作用。我们任命Akihisa Mizuno先生(日本腭裂基金会总裁;日本中部电力股份有限公司(Chubu Electric Power Co., Inc.)董事会主席、长门夏目教授(爱知学院大学医院唇腭裂中心主任;爱知学院大学口腔颌面先天性畸形研究与治疗学部教授,兼任大会会长。任命藤原裕教授(大阪健康科学大学言语-语言-听力治疗系)、上田光一教授(大阪医学院整形与重建外科系)、吉田典明教授(长崎大学正畸与牙面矫形外科系)、武部俊博士(爱知学院大学可拆卸修复医学系)为大会副会长。今村秀人博士和早川东子博士担任筹委会主席,伊藤正明博士担任筹委会副主席(图1)。共有来自41个国家和地区的723人参加了这次联席会议。这些国家和地区包括比利时、柬埔寨、智利、中国、捷克、厄瓜多尔、埃及、埃塞俄比亚、芬兰、德国、中国香港特别行政区、印度、印度尼西亚、伊拉克、以色列、科威特、老挝人民民主共和国、墨西哥、蒙古、莫桑比克、缅甸、尼日利亚、巴基斯坦、菲律宾、大韩民国、俄罗斯联邦、新加坡、南非、西班牙、斯里兰卡、苏丹、台湾、泰国、突尼斯、土耳其、乌克兰、大不列颠及北爱尔兰联合王国、美利坚合众国、乌兹别克斯坦和越南(图1)。共有323个题目。总统演讲的题目是“为唇腭裂的治疗奉献一生,感谢ICPF和JTS”。该计划包括其他七个专题讲座:“建立“胚胎学”;由大谷广树教授重新研究并将继续;“来自畸形学会(北美)的最新情况”,Elise M. Lewis教授;“新综合征的鉴定及其意义”,Kenjiro Kosaki教授;“我们从哪里来?”我们是什么?我们要去哪里?——盐田浩平教授的《畸形学家的个人观点》;“我作为日本畸形学会会员56年的经历”,作者:Mineo Yasuda教授;“单侧初级唇/鼻子复杂修复的外科技术”,Kenneth教授收稿:2019年9月30日收稿:2019年10月2日DOI: 10.1111/cga.12355
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引用次数: 0
Novel splice site mutation in EIF2AK3 gene causes Wolcott‐Rallison syndrome in a consanguineous family from Saudi Arabia EIF2AK3基因剪接位点突变导致沙特阿拉伯一个近亲家庭的Wolcott‐Rallison综合征
Pub Date : 2018-01-01 DOI: 10.1111/cga.12217
J. Al-Aama, H. S. Al-Zahrani, M. Jelani, Hesham Salih Sabir, Saad Abdullah Al-Saeedi, Saleem Ahmed
Jumana Yousuf Al-Aama, Hams Saeed Al-Zahrani, Musharraf Jelani , Hesham Salih Sabir, Saad Abdullah Al-Saeedi, and Saleem Ahmed Princess Al-Jawhara Center of Excellence in Research of Hereditary Disorders, Department of Genetic Medicine, Faculty of Medicine, King Abdulaziz University, Pediatric Radiology Unit, Faculty of Medicine, and Pediatric Department, Faculty of Medicine, King Abdulaziz University Hospital, Jeddah, Saudi Arabia
Jumana Yousuf Al-Aama, Hams Saeed Al-Zahrani, Musharraf Jelani, Hesham Salih Sabir, Saad Abdullah Al-Saeedi和Saleem Ahmed公主Al-Jawhara遗传性疾病卓越研究中心,医学院遗传医学系,阿卜杜勒阿齐兹国王大学医学院,儿科放射科,医学院儿科科,吉达,沙特阿拉伯
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引用次数: 3
Contiguous gene deletion neighboring TWIST1 identified in a patient with Saethre‐Chotzen syndrome associated with neurodevelopmental delay: Possible contribution of HDAC9 在与神经发育迟缓相关的Saethre - Chotzen综合征患者中发现邻近TWIST1的连续基因缺失:HDAC9可能起作用
Pub Date : 2018-01-01 DOI: 10.1111/cga.12216
Hiroko Shimbo, T. Oyoshi, K. Kurosawa
Saethre‐Chotzen syndrome (SCS) is an autosomal dominant craniosynostotic disorder characterized by coronal synostosis, facial asymmetry, ptosis, and limb abnormalities.
Saethre - Chotzen综合征(SCS)是一种常染色体显性的颅缝闭疾病,其特征为冠状缝闭、面部不对称、上睑下垂和肢体异常。
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引用次数: 3
期刊
Congenital anomalies
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