Literature DB >> 29141840

Cerebral Oxygenation Measurements by Magnetic Resonance Imaging in Fetuses With and Without Heart Defects.

Mette H Lauridsen1, Niels Uldbjerg2, Tine B Henriksen2, Olav B Petersen2, Brian Stausbøl-Grøn2, Niels B Matthiesen2, David A Peters2, Steffen Ringgaard2, Vibeke E Hjortdal2.   

Abstract

BACKGROUND: Children with major congenital heart defects are risking impaired cerebral growth, delayed cerebral maturation, and neurodevelopmental disorders. We aimed to compare the cerebral tissue oxygenation of fetuses with major heart defects to that of fetuses without heart defects as estimated by the magnetic resonance imaging modality T2*. T2* is low in areas with high concentrations of deoxyhemoglobin. METHODS AND
RESULTS: At gestational age mean 32 weeks (early) and mean 37 weeks (late), we compared the fetal cerebral T2* in 28 fetuses without heart defects to that of 15 fetuses with major heart defects: transposition of the great arteries (n=7), coarctation of the aorta/hypoplastic aortic arch (n=5), tetralogy of Fallot (n=1), hypoplastic right heart (n=1), and common arterial trunk (n=1). The women were scanned with a 1.5 T Philips scanner using a breath-hold multiecho gradient echo sequence. Among fetuses without heart defects, the mean T2* value was 157 ms (95% confidence interval [CI], 152-163) early and 125 ms (95% CI, 120-130) late. These figures were significantly lower (mean 14 ms; 95% CI, 6-22; P<0.001) among fetuses with heart defects 143 ms (95% CI, 136-150) early and 111 ms (95% CI, 104-118) late.
CONCLUSIONS: Our findings indicate that fetal cerebral T2* is measurable and that fetal cerebral tissue oxygenation measured by T2* is lower in fetuses with heart defects compared with fetuses without heart defects. This corroborates the hypothesis that tissue hypoxia may be a potential pathogenic factor that possibly affects brain development in fetuses with heart defects.
© 2017 American Heart Association, Inc.

Entities:  

Keywords:  deoxyhemoglobin; fetus; gestational age; heart diseases; hypoxia; magnetic resonance imaging; prognosis

Mesh:

Substances:

Year:  2017        PMID: 29141840     DOI: 10.1161/CIRCIMAGING.117.006459

Source DB:  PubMed          Journal:  Circ Cardiovasc Imaging        ISSN: 1941-9651            Impact factor:   7.792


  18 in total

Review 1.  Fetal cardiovascular magnetic resonance imaging.

Authors:  Julien Aguet; Mike Seed; Davide Marini
Journal:  Pediatr Radiol       Date:  2020-11-30

Review 2.  The Congenital Heart Disease Brain: Prenatal Considerations for Perioperative Neurocritical Care.

Authors:  Cynthia M Ortinau; Joshua S Shimony
Journal:  Pediatr Neurol       Date:  2020-01-22       Impact factor: 3.372

3.  Hemodynamic Responses of the Placenta and Brain to Maternal Hyperoxia in Fetuses with Congenital Heart Disease by Using Blood Oxygen-Level Dependent MRI.

Authors:  Wonsang You; Nickie N Andescavage; Kushal Kapse; Mary T Donofrio; Marni Jacobs; Catherine Limperopoulos
Journal:  Radiology       Date:  2019-11-05       Impact factor: 11.105

4.  Pre-eclampsia is associated with increased neurodevelopmental disorders in children with congenital heart disease.

Authors:  Camilla Omann; Camilla Nyboe; Rasmus Kristensen; Andreas Ernst; Cecilia Høst Ramlau-Hansen; Charlotte Rask; Ann Tabor; J William Gaynor; Vibeke E Hjortdal
Journal:  Eur Heart J Open       Date:  2022-04-21

5.  Early-Emerging Sulcal Patterns Are Atypical in Fetuses with Congenital Heart Disease.

Authors:  Cynthia M Ortinau; Caitlin K Rollins; Ali Gholipour; Hyuk Jin Yun; Mackenzie Marshall; Borjan Gagoski; Onur Afacan; Kevin Friedman; Wayne Tworetzky; Simon K Warfield; Jane W Newburger; Terrie E Inder; P Ellen Grant; Kiho Im
Journal:  Cereb Cortex       Date:  2019-07-22       Impact factor: 5.357

6.  Chronic perinatal hypoxia delays cardiac maturation in a mouse model for cyanotic congenital heart disease.

Authors:  Jennifer Romanowicz; Devon Guerrelli; Zaenab Dhari; Colm Mulvany; Marissa Reilly; Luther Swift; Nimisha Vasandani; Manelle Ramadan; Linda Leatherbury; Nobuyuki Ishibashi; Nikki Gillum Posnack
Journal:  Am J Physiol Heart Circ Physiol       Date:  2021-03-19       Impact factor: 4.733

7.  Cerebral oxygen saturation and cerebrovascular instability in newborn infants with congenital heart disease compared to healthy controls.

Authors:  Nhu N Tran; Jodie K Votava-Smith; John C Wood; Ashok Panigrahy; Choo Phei Wee; Matthew Borzage; S Ram Kumar; Paula M Murray; Mary-Lynn Brecht; Lisa Paquette; Kenneth M Brady; Bradley S Peterson
Journal:  PLoS One       Date:  2021-05-10       Impact factor: 3.240

8.  Serial neurosonography in fetuses with congenital heart defects shows mild delays in cortical development.

Authors:  Sheila M Everwijn; Jiska F van Bohemen; Nan van Geloven; Fenna A Jansen; Aalbertine K Teunissen; Lieke Rozendaal; Nico Blom; Jan M van Lith; Monique C Haak
Journal:  Prenat Diagn       Date:  2021-09-19       Impact factor: 3.242

9.  Prenatal to postnatal trajectory of brain growth in complex congenital heart disease.

Authors:  Cynthia M Ortinau; Kathryn Mangin-Heimos; Joseph Moen; Dimitrios Alexopoulos; Terrie E Inder; Ali Gholipour; Joshua S Shimony; Pirooz Eghtesady; Bradley L Schlaggar; Christopher D Smyser
Journal:  Neuroimage Clin       Date:  2018-09-27       Impact factor: 4.881

10.  Use of magnetic resonance imaging combined with gene analysis for the diagnosis of fetal congenital heart disease.

Authors:  Lishun Wang; Hongyan Nie; Qichen Wang; Guoliang Zhang; Gang Li; Liwei Bai; Tianshu Hua; Shuzhang Wei
Journal:  BMC Med Imaging       Date:  2019-01-25       Impact factor: 1.930

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