妊娠早期先天性心脏病(CHD)的检测

IF 0.4 Q4 RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING
Sonography Pub Date : 2021-11-11 DOI:10.1002/sono.12290
A. Lee‐Tannock
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Another paper compared 2D imaging and 4D STIC in detecting CHD in a high-risk population. Some congenital cardiac anomalies evolve during pregnancy and are not evident in the first trimester (e.g., aortic senosis). Additionally, other anomalies are present and easily diagnosable (e.g., hypoplastic left heart syndrome) compared to those that are less obvious (e.g., atrioventricular defect). The skill level of sonographers performing first trimester combine screening (FTCS) is also an important consideration. To perform this type of imaging NT certification is required, and to maintain it, sonographers need to demonstrate an ongoing high standard via annual audits. Not all sonographers performing obstetric imaging have this certification. This system does not exist for morphology imaging and could partially explain the discrepancy in detection rates between the two examinations. There is also a need to differentiate between a screening examination (where the heart is thought to be abnormal) and fetal echocardiography (where a cardiac diagnosis is made and counselling of the condition provided) in the first trimester. Most patients referred for early fetal echocardiography are due to concerns at a screening examination, and only a few are because of a previous baby with CHD. In a recent meta-analysis and systematic review, Yu et al. reported a detection rate for CHD at 75% using fetal echocardiography in a high-risk population. This rate also includes false positive and false negative diagnoses. In my 20+ years of performing fetal and paediatric echocardiography with some very experienced paediatric cardiologists, a definitive diagnosis in complex cases is not made until the postnatal period and/or at cardiac surgery. Another potential confounder is the lack of post-mortem data if a pregnancy is terminated based on scan findings alone. 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引用次数: 0

摘要

我饶有兴趣地阅读了Dudnikov、Quinton和Alphonse在《超声检查》(Sonography)杂志6月刊上发表的关于早期妊娠期先天性心脏病(CHD)检测的叙述性综述文章。毫无疑问,为准备这篇文章做了大量的工作,我为此赞扬作者。尽管如此,我还是觉得所谓的高检出率被夸大了,尤其是对低风险人群而言。作者确实说明了这一点和其他一些限制,但这些限制需要更多的强调。此外,一些综述文章的方法差异很大,汇集异质研究增加了显著偏倚的风险。例如,检出率计算包括仅使用心脏影像学征象的研究,而其他研究包括非心脏征象,例如颈透明(NT)、导管波形。另一篇论文比较了二维成像和四维STIC在高危人群中检测冠心病的效果。一些先天性心脏异常是在怀孕期间发生的,在妊娠早期并不明显(如主动脉瓣病变)。此外,与那些不太明显的异常(如房室缺损)相比,其他异常(如左心发育不全综合征)是存在的且容易诊断的。超声医师进行妊娠早期联合筛查(FTCS)的技能水平也是一个重要的考虑因素。要执行这种类型的成像NT认证是必需的,并保持它,超声医师需要通过年度审核证明持续的高标准。并非所有进行产科成像的超声医师都有这一证书。该系统不存在形态学成像,可以部分解释两种检查之间检出率的差异。在妊娠早期,还需要区分筛查检查(认为心脏异常)和胎儿超声心动图检查(做出心脏诊断并提供病情咨询)。大多数患者进行早期胎儿超声心动图检查是由于对筛查检查的担忧,只有少数患者是因为先前的婴儿患有冠心病。在最近的一项荟萃分析和系统综述中,Yu等人报道了在高危人群中使用胎儿超声心动图检测冠心病的检出率为75%。这一比率还包括假阳性和假阴性诊断。在我与一些非常有经验的儿科心脏病专家一起进行胎儿和儿科超声心动图的20多年中,直到产后和/或心脏手术时才能对复杂病例做出明确的诊断。另一个潜在的混杂因素是,如果仅根据扫描结果终止妊娠,则缺乏尸检数据。在低危人群中,常规FTCS检测冠心病的结果为60%-63%。值得注意的是,没有一项研究是针对澳大利亚或美国人群的,而这些人群的肥胖比欧洲人更普遍。我支持在妊娠早期检查时进行冠心病筛查。然而,我强烈要求在声称高检出率和准确诊断是现实的早期妊娠与一些病变和人群谨慎。这样的索赔可能会增加额外的工作量压力,并增加超声检查人员的诉讼风险,这是一个真正的危险。你的真诚
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Detection of congenital heart disease (CHD) in the first trimester
I read with interest the narrative review article on the detection of congenital heart disease (CHD) in the first trimester by Dudnikov, Quinton and Alphonse published in the June issue of Sonography. Undoubtedly, a great deal of work has gone into preparing this article, and I commend the authors for this. Still, I feel that the high detection rates quoted are overstated, particularly for the low-risk population. The authors do state this and some other limitations, but these limitations need more emphasis. In addition, the methodologies of some of the reviewed articles vary greatly and pooling heterogeneous studies increases the risk of significant bias. For example, the detection rate calculation included studies that used only cardiac imaging signs, whereas other studies included non-cardiac signs, for example, nuchal translucency (NT), ductus waveform. Another paper compared 2D imaging and 4D STIC in detecting CHD in a high-risk population. Some congenital cardiac anomalies evolve during pregnancy and are not evident in the first trimester (e.g., aortic senosis). Additionally, other anomalies are present and easily diagnosable (e.g., hypoplastic left heart syndrome) compared to those that are less obvious (e.g., atrioventricular defect). The skill level of sonographers performing first trimester combine screening (FTCS) is also an important consideration. To perform this type of imaging NT certification is required, and to maintain it, sonographers need to demonstrate an ongoing high standard via annual audits. Not all sonographers performing obstetric imaging have this certification. This system does not exist for morphology imaging and could partially explain the discrepancy in detection rates between the two examinations. There is also a need to differentiate between a screening examination (where the heart is thought to be abnormal) and fetal echocardiography (where a cardiac diagnosis is made and counselling of the condition provided) in the first trimester. Most patients referred for early fetal echocardiography are due to concerns at a screening examination, and only a few are because of a previous baby with CHD. In a recent meta-analysis and systematic review, Yu et al. reported a detection rate for CHD at 75% using fetal echocardiography in a high-risk population. This rate also includes false positive and false negative diagnoses. In my 20+ years of performing fetal and paediatric echocardiography with some very experienced paediatric cardiologists, a definitive diagnosis in complex cases is not made until the postnatal period and/or at cardiac surgery. Another potential confounder is the lack of post-mortem data if a pregnancy is terminated based on scan findings alone. Results of detection of CHD at routine FTCS in the low-risk population are quoted at 60%–63%. Of note, none of the reviewed studies was on an Australian or American population where obesity is more prevalent than in Europe. I support screening for CHD at the first-trimester examination. However, I would urge caution in claiming high-detection rates and accurate diagnoses is realistic at early gestations with some lesions and populations. There is a real danger that such claims could add additional workload pressure and increase the litigious risk for sonographers. Yours sincerely
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来源期刊
Sonography
Sonography RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING-
CiteScore
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