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European Heart Journal. Case Reports logoLink to European Heart Journal. Case Reports
. 2020 Dec 13;5(1):ytaa481. doi: 10.1093/ehjcr/ytaa481

Vitamin K deficiency-induced spontaneous haemopericardium and cardiac tamponade in an infant with alpha-1 antitrypsin deficiency: a case report

Christoph Bauer 1,2, Désirée Furthner 3,4,, Eva Grohmann 5, Gerald Tulzer 6,7
Editors: Inga Voges, Sylvia Krupickova, Daniele Giacoppo, Arvind Singh, Abdelrahman Ibrahim Abushouk, Ross Thomson
PMCID: PMC7898583  PMID: 33644648

Abstract

Background 

Vitamin K deficiency bleeding is a life-threatening complication in early infancy. Exclusive breastfeeding and neonatal cholestasis syndromes, most notable α-1-antitrypsin deficiency, have been reported to be risk factors. Intracranial haemorrhage is most common. No association to haemopericardium has been reported before.

Case summary 

We report on an 11 weeks old at term-born infant, who presented with severe anaemia and signs of cardiogenic shock. Immediately echocardiography was done and depicted cardiac tamponade. Pericardiocentesis was performed and a significant amount of haemorrhagic fluid was removed. Further workup revealed deranged coagulation parameters, cholestatic liver disease, and reduced α-1-antitrypsin levels. Despite normal brain sonography, a small cerebral haemorrhage was detected on magnetic resonance imaging. A genetic test finally proofed homozygotic mutation of the SERPINA1-gene and confirmed the diagnosis of α-1-antitrypsin deficiency as the underlaying cause. After initial replacement of coagulation factors, erythrocytes and vitamin K, the infant recovered. Eighteen weeks after discharge, the infant is still on vitamin K supplementation. She did not have any further bleedings and no neurologic or developmental impairment.

Discussion 

Alpha-1-antitrypsin deficiency can lead to vitamin K deficiency in young infants even with adequate prophylaxis. Spontaneous haemorrhagic pericardial effusion was a new manifestation of vitamin K deficiency bleeding in our patient and should be considered and ruled out in young infants who present with acute anaemia and poor clinical condition.

Keywords: Vitamin K deficiency bleeding, Haemopericardium, Cardiac tamponade, Alpha-1-antitrypsin deficiency, Infant, Case report


Learning points

  • Spontaneous haemopericardium complicated by cardiac tamponade should be considered and ruled out in young infants who present in poor clinical condition and with acute anaemia.

  • Coagulation disorders should be ruled out in infants with unclear pericardial effusion.

Introduction

Vitamin K deficiency is a common cause for neonatal bleeding and can be life-threatening.1,2 Vitamin K prophylaxis is aimed to prevent coagulation disorders but may not be sufficient in all infants, particularly with unrecognized neonatal cholestasis causing malabsorption.3 Intracranial haemorrhage is typical but other organs may be affected too.4,5 Biliary atresia and α-1-antitrypsin deficiency are two of the most common causes of cholestasis in infants and can lead to malabsorption of fat-soluble vitamins resulting in vitamin K deficiency.6 We report on an infant, who showed haemopericardium and cardiac tamponade as a new manifestation of vitamin K deficiency bleeding due to α-1-antitrypsin deficiency.

Timeline

Age: Events:
Past medical history: healthy at term-born girl, breast and partially formula fed, received 2 mg of vitamin K p.o. after birth, during the 1st week and after 7 weeks.
10 + 4 weeks Weakness, vomiting, sucking weakness
10 + 6 weeks Admission to local hospital due to aggravating symptoms
11 + 0 weeks

Sudden drop in haemoglobin level (6.3 g/dL, normal 9.2–15.0 g/dL), administration of erythrocytes, new onset of pericardial effusion

Transfer to our intensive care unit, signs of cardiogenic shock, emergency pericardiocentesis (drainage of 150 ml blood), milrinone i.v., replacement of deranged coagulation parameters, administration of 1 mg vitamin K i.v.

Diagnosis of cholestatic liver disease, reduced α-1-antitrypsin level (37 mg/dL, normal 90–120 mg/dL), white matter lesion (cerebral-magnetic resonance imaging)

11 + 2 weeks

removal of pericardial tubes, exclusion of biliary atresia (liver biopsy), exclusion of viral hepatitis (serology)

initiation of vitamin deficiency replacement therapy: cholecalciferol, tocopherol, retinol and vitamin K

12 + 3 weeks

Genetic testing: homozygotic mutation of the SERPINA1-gene (c.1096G>A), PiZZ-type confirmed α-1-antitrypsin deficiency

Discharge: without any neurologic deficits

35 + 4 weeks Latest outpatient visit: appropriate weight gain, no developmental delay or neurologic deficits, continuation of the vitamin deficiency replacement therapy

Case presentation

A previously healthy at term-born 11-week-old girl was transferred from a local hospital to our intensive care unit with a history of new-onset pericardial effusion and a sudden drop in haemoglobin levels (6.3 g/dL, normal 9.2–15.0 g/dL), which was treated with erythrocyte transfusion. Symptoms started 3 days prior to admission with weakness, vomiting, and refusal to drink and aggravated during the last night. The patient was the first child of non-consanguineous parents with no family history of liver disease or bleeding disorders. There was no history of trauma.

On admission to our centre, the infant was in a poor clinical condition. Physical examination revealed normal heart sounds which could be heard well, a heart rate of 134–155 b.p.m. with different heights of amplitude, a blood pressure of 76/57 mmHg, and an extended capillary refill time. The saturation was good, but the venous blood gas analysis showed lactate acidosis with pH 7.18 and blood lactate concentration of 8.5 mmol/L (normal 0.5–1.6 mmol/L). The infant was pale, tachypnoeic, tachycardic, and showed a slight icterus and moderate hepatosplenomegaly that was confirmed by ultrasound.

Emergency echocardiography was performed and depicted a significant amount of pericardial effusion leading to haemodynamic compromise. Two-dimensional echocardiography demonstrated collapse of the right atrium and right ventricle (Video 1) as well as inspiratory bouncing of the interventricular septum towards the left ventricle (Video 2). Pulsed wave Doppler of mitral valve inflow was marked reduced on inspiration (Figure 1) and M-Mode showed the paradoxical movement of the interventricular septum in early diastole (Figure 2). Cardiac tamponade was immediately treated with pericardiocentesis and tube placement. One hundred and fifty millilitres of haemorrhagic fluid was drained from the pericardial space and the patient improved. In addition, milrinone was started to improve cardiac function.

Figure 1.

Figure 1

Echocardiography (parasternal short axis): M-mode showing the paradoxical movement of the interventricular septum in early diastole.

Figure 2.

Figure 2

Echocardiography (apical four-chamber view): mitral valve inflow pattern demonstrating a reduction in mitral peak E-wave velocity during inspiration.

Coagulation parameters were severely deranged with extended prothrombin time (14 s, normal < 11 s), reduced factor II activity (27%, normal 70–120%) and factor X activity (52%, normal 70–120%), and slight extended aPTT (30.4 s, normal 21.6–28.7 s), and had to be replaced with 1 mg vitamin K intravenously and human coagulation factor II, VII, IX, and X with following fast regression of the coagulation profile. Laboratory tests further revealed cholestatic liver disease [elevated total bilirubin (3.52 mg/dL, normal 0–1.2 mg/dL), gamma GT (253 U/L, normal 27–134 U/L), and a reduction of total protein (52.9 g/L, normal 64–87 g/L), and α-1-antitrypsin levels (37 mg/dL, normal 90–200 mg/dL)]. Thrombocytes were within normal limits.

Vitamin K deficiency bleeding due to α-1-antitrypsin deficiency was suspected. In addition, cholecalciferol (4000 IU), tocopherol (0.35 mg/kg), and retinol (4000 IU) were started to replace fat-soluble vitamins.

During workup, biliary atresia and viral hepatitis were excluded with liver biopsy and serology. To rule out cerebral bleeding, magnetic resonance imaging was performed and despite normal brain sonography a small haemorrhage (10 × 6 mm) in the right frontal lobe was detected (Figure 3). However, no signs of neurologic deficits were evident. A genetic test finally proved homozygotic mutation of the SERPINA1-gene (c.1096G>A), PiZZ-type and confirmed the diagnosis of α-1-antitrypsin deficiency.

Figure 3.

Figure 3

Brain-magnetic resonance imaging (maximal intensity projection) of the patient showing a white matter lesion of 10 × 6 mm in the right frontal lobe.

Pericardial tubes could be removed 2 days after placement and the infant recovered. The patient was discharged 10 days after admission with vitamin K, cholecalciferol, tocopherol, and retinol as long-term medication. The first follow-up 1 month after discharge showed a normal echocardiography and liver sonography. Also 23 weeks after discharge, the patient still presented without any neurologic deficits or signs of pericardial effusion as well as good cardiac function. The laboratory test showed sufficient blood levels of supplemented vitamins in addition to normal coagulation profile.

Discussion

Pericardial bleeding is a rare disorder that is often complicated by life-threatening cardiac tamponade. In the paediatric population, it was reported in trauma, endocarditis, cardiac malformations, and tumours but no association to coagulation disorders have been described.7–9 In adults, spontaneous haemopericardium has previously been reported in a small number of patients with haemophilia and vitamin K-antagonist therapy (e.g. warfarin),10–13 conditions similar to vitamin K deficiency bleeding.

Vitamin K deficiency is a common cause of haemorrhage in neonates and young infants. The predominant manifestation of bleeding is intracranial, followed by gastrointestinal and umbilical affection.2,5 To prevent complications, routine administration of vitamin K has been introduced widely. However, vitamin K deficiency bleeding still occurs in infants with unknown cholestasis on the basis of poor intestinal absorption, especially in those who are exclusively breastfed.3

The most common hereditary cause of neonatal cholestasis syndrome is α-1-antitrypsin deficiency.6 It has been associated with vitamin K deficiency bleeding in 75% of breastfed infants in a small study. Interestingly, the risk of vitamin K-dependent bleeding did not correlate with the degree of cholestasis in that cohort and no vitamin K deficiency bleeding was seen in partially formula-fed infants.4

Our patient was partially formula fed and received 2 mg vitamin K orally after birth, during the 1st week and after 7 weeks. However, despite prophylaxis and adequate nutrition, vitamin K deficiency bleeding developed due to α-1-antitrypsin deficiency.

Spontaneous haemopericardium complicated by cardiac tamponade was a new and severe complication in this young infant that could successfully be managed with pericardiocentesis and replacement of coagulation factors and should therefore be considered and ruled out in young infants who present in poor clinical condition and acute anaemia.

Lead author biography

Dr Christoph Bauer graduated from medical university of Graz, Austria in 2010. He completed his residency in Pediatric and Adolescent Medicine at the Kepler University Hospital. Currently, he is following his residency in Pediatric Cardiology at the Kepler University Hospital. His main research theme is Fontan failure in single ventricle patients.

graphic file with name ytaa481f4.jpg

Supplementary material

Supplementary material is available at European Heart Journal - Case Reports online.

Slide sets: A fully edited slide set detailing this case and suitable for local presentation is available online as Supplementary data.

Consent: The authors confirm that written consent for submission and publication of this case report including images and associated text has been obtained from the parents of the patient in line with COPE guidance.

Conflict of interest: none declared.

Funding: none declared.

Supplementary Material

ytaa481_Supplementary_Data

Contributor Information

Christoph Bauer, Department of Paediatric Cardiology, Kepler University Hospital GmbH, Krankenhausstrasse 26-30, 4020 Linz, Austria; Faculty of Medicine, Johannes Kepler University Linz, Altenbergerstrasse 68, 4040 Linz, Austria.

Désirée Furthner, Faculty of Medicine, Johannes Kepler University Linz, Altenbergerstrasse 68, 4040 Linz, Austria; Department of Paediatrics and Adolescent Medicine, Kepler University Hospital GmbH, Krankenhausstrasse 26-30, 4020 Linz, Austria.

Eva Grohmann, Department of Paediatric Cardiology, Kepler University Hospital GmbH, Krankenhausstrasse 26-30, 4020 Linz, Austria.

Gerald Tulzer, Department of Paediatric Cardiology, Kepler University Hospital GmbH, Krankenhausstrasse 26-30, 4020 Linz, Austria; Faculty of Medicine, Johannes Kepler University Linz, Altenbergerstrasse 68, 4040 Linz, Austria.

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