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England and Wales High Court (Family Division) Decisions |
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You are here: BAILII >> Databases >> England and Wales High Court (Family Division) Decisions >> A County Borough Council v M [2008] EWHC 3320 (Fam) (14 March 2008) URL: http://www.bailii.org/ew/cases/EWHC/Fam/2008/3320.html Cite as: [2008] EWHC 3320 (Fam) |
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In a District Registry
(Family Division)
B e f o r e :
____________________
A COUNTY BOROUGH COUNCIL |
Applicant |
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-v- |
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M |
1st Respondent |
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F |
2nd Respondent |
|
MGPs (MGP and PGP) |
3rd Respondents |
____________________
Cater Walsh Transcription Limited
1C The Court, Newport Road, Cardiff, CF24 1RH
Official Court Reporters
[Copyright: No part of this document may be reproduced
or transmitted in any way without prior permission]
____________________
MISS R HENKE QC and MISS C HAYWORTH appeared on behalf of the 1st respondent
MR J TILLYARD QC and MR C PARSLEY appeared on behalf of the 2nd respondent
MR M REES appeared on behalf of the 3rd respondents
MR J FURNESS QC appeared on behalf of the children's guardian
____________________
Crown Copyright ©
(i) Blotchy patches of petechial bruising above and below the right eye. These were blue in colour. Bruising below the eye measured 2 centimetres by 2 centimetres by 2 centimetres and was roughly triangular. Above the eye the bruising appeared in a patch measuring 2 centimetres.
(ii) Slight soft tissue swelling under the eye.
(iii) A linear brown bruise on the anterior aspect of the right leg in the midline. This was approximately 3.6 centimetres long, with a distal linear extension of slightly lighter colouration, also brown, measuring 1.5 centimetres long.
(iv) Three petechial bruises and a cluster in the midline of the left upper arm.
(v) A mark on the nape of his neck, which was thought to be a birth mark.
(a) the cause of C1's collapse on the night of 22 April 2005, and
(b) the cause of bruising to C2's face and body when examined on 23rd June 2006.
"The balance of probability standard means that a court is satisfied an event occurred if the court considers that, on the evidence, the occurrence of the event is more likely than not. When assessing the probabilities, the court will have in mind as a factor, to whatever degree is appropriate in a particular case, that the more serious the allegation, the less likely it is that the event occurred and, hence, the stronger should be the evidence before the court concludes that the allegation is established on the balance of probability. … Deliberate physical injury is usually less likely than accidental physical injury. … Built into the preponderance of probability standard is a generous degree of flexibility in respect of the seriousness of the allegation. Although the result is much the same, this does not mean that where a serious allegation is the issue, the standard of proof required is higher. It means only that the inherent probability or improbability of an event is itself a matter to be taken into account when weighing the probability in deciding whether on balance the event occurred. The more improbable the event, the stronger must be the evidence that it did occur before, on the balance of probability, its occurrence will be established.
Ungoed Thomas J expressed this neatly in Re Dellow's Will Trusts [1964] 1 WLR 451.
"The more serious the allegation, the more cogent is the evidence required to overcome the unlikelihood of what is alleged and thus to prove it."
"C1 was next assessed by a doctor on the date of his immunisations (20 April 2005). He underwent a general eight week check. It is documented that his head circumference at that time was 37 cm (2nd centile). His head control and muscle tone were satisfactory. His vision was satisfactory. C1 was reported to fix and follow. His general behaviour was satisfactory. Examination of his hearing, genitalia, hips and cardiovascular system were all normal. The GP reports that C1 was given a combination vaccine against diphtheria, tetanus, pertussis (whooping cough), polio and Haemophilus influenza type B infection (Pediacel combination vaccine batched C2034AA). This vaccine contains inactivated extracts of the five different organisms that cause the aforementioned diseases. In addition C1 was given the meningitis (C) immunisation as a separate injection."
On that morning the father went to work as usual but unfortunately was dismissed from his job as a customer services assistant. He told me he went into work that morning and was dismissed almost immediately because he was not up to the grade and he got the blame for the computer system crashing. He told me he felt blameless and wrongly accused. He told me that he came home and started some DIY. The garage roof had to be fixed. He told me he was not stressed on that day. However, that evidence was contrary to what he told the police on 31 July 2007 when he said, "Well, I come home at 20 past 9.00, got changed, and I just, you know… My way to deal with stress is DIY, so I just went out to the garage, or painting and decorate. That's how I handle stress." In the afternoon MGM came to look after C1 while the mother went to have her hair done prior to going out in the evening. MGP came with her and helped the father repair the garage roof. MGM remembers C1 as being very sleepy, but she told me that at that time she had no concerns about that.
The mother went out with her girlfriends for the evening at about 7.15pm, leaving C1 in the sole care of the father. The mother describes the events of the evening in her statement of 22 February 2008 in this way:
"My mother came over to our house to baby-sit, and my father and F began fixing our garage roof, which was a job they had been planning to do for some time. The hairdressers is about a five minute walk from my home. When I got back at about 4.00 to 4.15pm, my mother had just gone home. C1 was in his bouncy chair. I fed C1 at about 5.30pm and made up bottles and placed them in the fridge. I then had something to eat and got ready to go out.
Before I went out, I again asked F if he was sure he did not mind me going out, and he was quite clear that he wanted me to go out and he seemed perfectly normal. After I had left the house, I remembered I had forgotten four cans of cider that I intended to take to my friend's house, so I came back in to get them. Nothing was unusual in the house. C1 was in his bouncy chair in the living room and F was on the sofa watching TV.
I returned from my girls' night out at approximately 12 o'clock, to find police coming out of my house and to be informed that C1 was poorly and had been taken to hospital. I was shocked and confused, as he was fine when I had gone out."
The brain is cased in three membranes. The one immediately surrounding the brain is the pia mater. The next one is the arachnoid. Between the pia mater and the arachnoid is an area known as the subarachnoid space, in which is located the cerebrospinal fluid. The third membrane, the dura, is a much tougher thicker membrane which surrounds the brain and continues down the body surrounding and protecting the spinal cord. It is commonly said that between the arachnoid and the dura membranes lies the subdural "space". However, I was told that the "space" does not in fact exist in a healthy infant. It is a potential space. Between the arachnoid and the dura membranes are veins which are called bridging veins. The brain is divided into two halves or cerebral hemispheres which are separated by the falx, which itself is part of the dura. Below the cerebral hemispheres the brain is joined to the spinal cord at the craniocervical junction. The spinal cord extends from the brain and into the spine. Below the back of the cerebrum is the cerebellum or "little brain". The tentorium cerebelli is a fold of the dural membrane that separates the cerebrellum from the main cerebral hemispheres.
Dr Leadbeatter found no fracture present in any of the bones of the skull. He did find a 3 cm wide x 2 cm high discolouration to the left of the midline of the back of the head, the upper margin some 4.5 cm below the top of the head. There was some "bloodstained fluid" below the dura at each side of the brain, but this amounted to no more than 2 ml in total. There was a minor "clot" of no significant volume and included in the 2 ml total volume in the middle part of the right side of the base of the skull and above the sheet of membrane which separates the brain from the little brain. The preliminary post-mortem findings confirmed the clinical history of subdural bleeding, albeit of a small volume, and cerebral swelling.
"The fixed brain weighed 780g and showed "bleeding below the middle covering" (subarachnoid haemorrhage) over each hemisphere, largely parallel with surface blood vessels and most obvious over the upper surface of the "front of the right side of the brain" (superior aspect of right frontal lobe), the "junction between the lobes at the front and the sides of the brain" (each sylvian fissure), and between the optic nerves and the midbrain. No abnormality was seen in the blood vessels of the Circle of Willis, and there was no gross abnormality of the "little brain" (cerebellum) or brain stem. Some minor subdural clot was present in association with the "membrane which separates the halves of the brain" (parafalcine subdural clot). Multimple "top-to-bottom (coronal) slices of the brain revealed no unequivocal haemorrhage within the ventricles, and no significant gross abnormality, other than apparent vascular congestion.
Examination of the fixed cervical cord confirmed the presence of "blood outside the outermost covering" (epidural blood) in the posterior cervical and posterior and anterior lumbar segments, with possible subarachnoid haemorrhage in the mid-thoracic segment and blood in the epidural fat throughout the mid-thoracic to lumbar region."
"Microscopy
Examination under the microscope of multiple sections from the brain confirmed the naked eye appearances of subarachnoid haemorrhage; there was apparent haemorrhage in the left lateral ventricle and many areas of perivascular extravasation without associated inflammatory cells (no vasculitis). Several "slits" were seen within white matter but few of these were associated with significant bleeding, and they are considered to be the consequence of fixation artefact, rather than to represent true injury. There was wide variation in size, shape and staining of nerve cell bodies, with marked pericellular vacuolation, considered in keeping with the consequence of "poor supply of blood or oxygen" (ischaemic/hypoxic injury): staining with an antibody to B-amyloid precursor protein (B-APP) revealed a "geographic" distribution of staining, but only occasional scattered "bulbs" and varicosities were seen in the lenticular nucleus and internal capsule.
No iron pigment was seen and there was nothing to indicate organisation of any previous bleeding in association with the dura.
Multiple sections from the brain stem and cervical cord confirmed the presence of extradural red blood cells with focal intradural, subdural or subarachnoid bleeding in association with nerve roots. No iron pigment was seen in association with this bleeding. Staining with an antibody to B-APP revealed several varicosities or "bulbs" in cervical nerve roots; similar appearances were seen in a section from the thoracic cord.
Sections from the eyes confirmed the naked eye appearances of bleeding within, and below, the dural sheath of the optic nerves; no iron pigment was seen in association with that bleeding, but there was iron pigment within the orbital soft tissues. There was bleeding in all layers of the retina in each eye, but no bleeding was seen within the vitreous humour. Blood was present in the head of the left optic nerve and the sclera adjacent to that nerve; bleeding was present in both posterior and anterior aspects of the retina."
"Post-mortem examination of the head reveals bruising to the back of the head that was not present ante-mortem. I disagree with the report by Dr Leadbeatter (4.03.5) who states that there was "no bleeding through the full thickness of the scalp at either point" and "no subperiosteal bleeding". In my opinion, the post-mortem photographs show bruising extending to the galea (a layer of the scalp) and also bleeding within the periosteum (intraperiosteal bleeding) (membrane covering the skull bones). I have undertaken surgery on hundreds of acute head injuries, and these operations involved "peeling back" the scalp in exactly the manner shown in the photographs. I have often seen similar patterns of scalp bruising, with intraperiosteal bleeding, in patients who have suffered witnessed accidental falls onto soft yielding surfaces (e.g. thickly carpeted floor). I acknowledge that these bruises were not documented ante-mortem but would comment that subtle bruising behind the hairline, particularly at the back of the head, is often missed on clinical examination; it is equally possible that the bruising was not clinically evident at the time of examination, but nevertheless involved following an injury occurring hours before. This bruising could be attributed to three causes: (i) a blow to the back of the head on a soft yielding surface such as a mattress or possibly carpet (depending on the force used), (ii) pressure on the back of the head during resuscitation, particularly in the presence of a coagulopathy, (iii) post-mortem artefact."
According to Dr Stoodley and Dr Gawne-Cain, the CT scan, taken at 2 o'clock on the morning of 23 April 2005, shows a number of abnormalities: (i) Extensive hypoxic-ischaemic brain injury throughout most of both cerebral hemispheres. (ii) Hypoxic-ischaemic brain injury involving the cerebellum. (iii) Acute subarachnoid blood in a peripheral distribution most consistent with trauma. (iv) Acute intraventricular blood. (v) Acute subdural blood in the posterior interhemispheric fissure and the posterior fossa. (vi) Low attenuation: frontal, subdural collections, likely to be due to an acute traumatic event.
Dr Stoodley says in his report of 10 February 2007 at G29:
"The cerebral hemispheres are of lower attenuation than normal and there is almost complete loss of grey white differentiation. Some minor relative sparing of grey-white differentiation is seen in the medial occipital regions bilaterally, i.e. these appear to be the only areas of the brain that are less involved in the hypoxic process at the time of this scan. The generalised low attenuation and loss of grey white differentiation is secondary to extensive hypoxic-ischaemic brain injury. This, somewhat unusually, involves the basal ganglia, thalami and brainstem, and the fact that these areas are involved is likely, in my view, to reflect the severity of the injury. Other than the generalised hypoxic-ischaemic injury, no other focal brain abnormality has been identified.
The cerebellum is also of abnormally low attenuation with reduced grey white differentiation. It is extremely unusual to see involvement of the cerebellum evident on scans in the majority of hypoxic-ischaemic brain injuries; the cerebellum is usually spared (in terms of scan appearances) in hypoxic insults due to events such as asphyxiation or when a patient has collapsed secondary to cardio-respiratory arrest from various causes. The ventricles are not enlarged and indeed are within normal limits for size, but the basal cisterns are partially effaced, suggesting a mild degree of brain swelling at the time of this CT scan, but see comments regarding lack of sutural splaying in this context below.
High attenuation material (representing acute blood) is seen in a patchy peripheral linear distribution, consistent with peripheral subarachnoid haemorrhage in the sulci over the surface of the brain, in the Sylvian fissures and in the posterior horns of both lateral ventricles. Whilst severe hypoxic-ischaemic brain injury (from whatever cause) can lead to oozing of blood into the subarachnoid space, the amount of subarachnoid blood and its distribution on C1's scan is, in my view, more in keeping with traumatic aetiology for the subarachnoid haemorrhage.
In the region of the falx there is also some high attenuation material, consistent with acute blood. In some places this acute blood appears somewhat irregular in outline and this too is likely to be due to blood in the subarachnoid space. However, particularly posteriorly, the appearances are more suggestive of the presence of acute subdural blood lying adjacent to the falx, with blood extending inferiorly to layer over the upper surface of the tentorium slightly more on the left than the right. There is also a little high attenuation material seen in relation to the falx cerebelli, suggesting some posterior fossa subdural blood. It is not possible to estimate the age of any of this acute blood on the basis of the neuroimaging appearances alone, as blood can appear bright on CT scans from soon after an episode of bleeding for up to 7-19 days; very occasionally longer (but see comments regarding timing of injury below).
In addition, over both frontal regions there is evidence of subdural fluid collections of a different appearance to the acute blood. These other collections are of low attenuation (i.e. are darker than the underlying brain). The low attenuation collection on the left is slightly larger than the collection on the right. Whilst traditionally low attention subdural collections would be most likely to have been thought of as chronic subdural haematomas (i.e. evidence of older episodes of bleeding), it is increasingly recognised that low attenuation subdural collections can be seen in the context of acute injuries when the arachnoid membrane has been torn, as this can allow cerebrospinal fluid to leak into the subdural space and either collect there or dilute any acute blood present. Given the extent of the rest of the brain injury, in my view it is most likely that the lower attenuation fluid seen represents the result of an acute injury which has involved tearing of the arachnoid membrane. The scan appearances therefore are in my view explicable on the basis of being the result of a single event. The lack of any pathological evidence of older bleeding or a subdural neo-membrane would, in my view, support this conclusion.
The scan has also been photographed on bony windows. No fracture has been identified. There is no soft tissue swelling evident to suggest a recent impact injury against a hard or unyielding surface. There does not appear to be significant sutural splaying at the time of this examination. This suggests that, although some cerebral swelling is evident as the basal cisterns are effaced, this has not caused any sutural splaying and suggests that the causative event is likely to have occurred very close to the time of the CT examination, in my view, i.e. before major swelling has had the opportunity to develop. I note that the post-mortem skeletal survey (which I have not seen) was reported as showing some probable sutural splaying. Given the extent of the hypoxic-ischaemic brain injury evident on the CT scan, I am not at all surprised that there may have been some sutural splaying by the time of the post-mortem skeletal survey, as brain swelling would have continued to develop in the period between the CT scan and the time of C1's death.
Given the extent of the brain injury, it is my view, it is extraordinarily improbable that C1 would have behaved any way normally after causative event, and is likely to have become obviously and severely unwell at the time of the causative event."
"It is not possible to manipulate the images to view details of the bones of the skull. On the soft tissue images no obvious scalp swelling is apparent. I cannot comment on whether there is a skull fracture or whether there is spreading of the skull sutures (sutures are the gaps between the plates of bone that make up the skull). I note that Dr Stoodley, who has seen bone windows for this study, did not find evidence of skull fracture or sutural widening.
The brain is dark and featureless. The normally visible distinction between grey and white matter has been lost. Although the brain may be slightly swollen, normal fluid filled spaces are still visible around the base of the brain, and there is no herniation of the brain across intracranial compartments.
There is extensive high attenuation (looks white on the images) material seen over the surface of the brain. This represents recent haemorrhage. Much of this blood is in the subarachnoid space. That is to say, it lies in the cerebrospinal fluid that normally surrounds and bathes the brain and extends into the folds and fissures of the surface of the brain.
Some of the blood outlines the falx and the tentorium. These tough dural membranes project inwards from the superior and posterior aspects of the skull to lie between the cerebral hemispheres (falx) and between the forebrain and the hind brain (tentorium). They are covered with a more delicate layer, the arachnoid membranes. It is likely that this blood is subdural in location – lying between the layers of membranes.
There is also blood within the ventricles – the fluid filled spaces in the centre of the brain. The subarachnoid space is in free communication with the ventricles and blood can travel from one of these regions to another. The subdural space is normally separate from the subarachnoid space and blood within this compartment is less mobile.
There are collections of low attenuation (looks dark) fluid over the convexities of both cerebral hemispheres. These collections are separate from the subarachnoid space and are likely to represent subdural collections. That is to say, the fluid lies between the membranes on the inner surface of the skull. From the radiological appearances, the darker fluid could represent either (a) old subdural haemorrhage (because intracranial blood becomes darker in appearance with time), or (b) cerebrospinal fluid that has looked from the subarachnoid to the subdural space through a tear in the (delicate) arachnoid membrane. I note that at autopsy this was found to be bloodstained fluid without evidence of old haemorrhage. This supports the second possibility (leakage of fluid through a tear/tears in the arachnoid membrane)."
"The pattern of acute haemorrhage (both subarachnoid and subdural) demonstrated on the scan is most likely to be due to head trauma, in my view. Any insult of sufficient severity which causes reduced blood and/or oxygen supply to the brain can lead to hypoxic-ischaemic brain damage and, as stated above, severe hypoxic-ischaemic brain injury from any cause can lead to patchy subarachnoid haemorrhage. However, in my view the pattern of subarachnoid haemorrhage seen on C1's scans is much more likely to be due to a primary traumatic cause rather than to be due to a secondary phenomenon of hypoxic-ischaemic injury. Given that the scan was perform only a few hours after C1's collapse, it would be very unusual, in my experience, to see this degree of subarachnoid haemorrhage in the context of a primary acute hypoxic event such as an apnoeic event.
Although there is only a small amount of acute subdural blood seen on the scan, its distribution in the posterior interhemispheric fissure and posterior fossa is unusual in conditions other than head trauma. I note that there was evidence of a blood clotting abnormality (thought to be secondary to C1's clinical condition). I am aware that brain injury itself can lead to clotting abnormalities, but it will be important to obtain expert haematological advice regarding the nature of C1's acute clotting dysfunction. In any case, from the point of view of the neuroradiological appearances, in cases of intracranial haemorrhage secondary to blood clotting abnormalities, the bleeding usually occurs into the substance of the brain itself rather than being subarachnoid or subdural bleeding over the surface of the brain. The pattern of subdural blood is therefore also more in keeping with a primary traumatic cause rather than being due to any secondary effect.
The degree of hypoxic-ischaemic brain injury evident on the scan performed at around 0200 hrs (i.e. within a very few hours of C1's clinical collapse) is very extensive and involves almost all of both cerebral hemispheres, the deep grey structures, brain stem and cerebellum. In view of the extent of this injury, it is virtually inconceivable that C1 could have behaved in any way normally after the event which caused this degree of brain injury, and he is, in my view, likely to have become obviously and severely unwell at the time of the causative event. Very occasionally in clinical practice, a child who has stopped breathing for some reason at home or elsewhere is brought into hospital having been resuscitated by carers and/or paramedics. It is very unusual, in my experience, to see any degree of hypoxic-ischaemic brain injury in any of these cases on such early scans, and I cannot recall ever having seen such a degree of hypoxic-ischaemic brain injury as is seen on C1's scan in such a clinical situation. Infants and children who stop breathing for various reasons or who, for example, suffer seizures are not infrequently resuscitated by carers and professionals with various degrees of training and experience. Those infants and children who have head scans following such events do not, in my experience, show the features demonstrated on C1's scan. In addition, in such circumstances it would be extremely unusual to see this degree of change in the cerebellar hemispheres secondary to such a primary hypoxic insult. Evidence of hypoxic-ischaemic change in the cerebellum on scans is occasionally seen in cases of non-accidental head injury, especially in injuries toward the more severe end of the spectrum of severity. In my view, therefore, the head injury is likely to have been the cause of C1's collapse and the reason he required resuscitation, rather than resuscitation being the cause of these appearances.
Looking at all of the neuroimaging appearances and interpreting those in the context of a very acute sever clinical deterioration, the only reasonable explanation that I can put forward which explains all of these features is that C1 suffered an episode of head trauma. The types of head trauma that infants of C1's age can be subject to are:
(i) birth related;
(ii) accidental head injury, and
(iii) non-accidental head injury.
The acute blood event is unequivocally recent and could not date back to the time of delivery, and I am unaware of any condition that could have occurred at the time of delivery which would lead to such a devastating and sudden clinical deterioration as occurred to C1 on April 22nd 2005.
There is no history of accidental head trauma of sufficient severity to account for the neuroimaging appearances, and C1 was not of an age where he could have manoeuvred himself into position to have caused himself such harm.
The neuroimaging appearances seen are, however, entirely consistent with being due to an episode of non-accidental head injury. This is likely to have involved a shaking or shaking/impact mechanism, although it would not, in my view, have been necessary for any impact to have occurred with an external surface. Majority medical opinion is of the view that what is required to produce such injuries is likely to be the repetitive backwards and forwards movement of the unsupported infant head which pivots on the neck."
1. "The combination of radiological findings – cerebral oedema with subarachnoid and multifocal subdural haemorrhage – is very suggestive of a traumatic cause. The additional finding of retinal haemorrhages is also in keeping with trauma, and completes the 'triad'. This pattern of brain injury and haemorrhage is one that we associate with a rotational acceleration/deceleration injury such as might be caused by shaking. It is believed that rotational acceleration/deceleration of the head results in (a) stretching and tearing of bridging veins passing from the brain to the skull causing small volume subdural and subarachnoid haemorrhages; (b) stretching and damage to nerve fibres in the brain stem causing apnoea of variable duration (cessation of breathing) resulting in hypoxic insult to the brain; (c) in severe cases, tearing of fibres within the brain substance, or shear injuries. That rotational trauma can cause such injuries is generally accepted. However, the strength and nature of the forces required to cause the injuries is more in dispute. Confession evidence exists that suggests that shaking alone is capable of causing brain injury [1] but confessions are not always reliable. It has been suggested that the rotational forces generated by shaking are insufficient to cause brain injury, but are greatly increased if there is impact at the end of the rotational movement [2]. Arguments revolve around whether the biomechanical models used in experiments are sufficiently true to real babies, and whether the impact needs to be with an external object or could be with the infant's own back/chest [3]. Certainly in cases of this kind, evidence of impact is not always found [4], and this is one of the reasons prompting workers in the field to search for alternative explanations for the constellation of findings. Even if it is accepted that the 'triad' may be caused by shaking a baby, the presence of the 'triad' does not automatically prove that shaking has occurred, and other possibilities should always be considered.
I retain rotational acceleration/deceleration injury as a reasonable explanation of the radiological appearances.
2. In this case, no history of shaking has been given, and it is necessary to explore other possible explanations for C1's collapse.
3. Birth may cause intracranial haemorrhages. However, the bleeding and brain injury are too recent and could not be explained by a traumatic birth. This possibility is rejected.
4. Accidental Trauma: An accidental fall resulting in impact to the head, with a significant rotational element, might result in intracranial haemorrhage and cerebral oedema. The generalised pattern of haemorrhage and the lack of evidence of impact in this case would be atypical for an accident. No accidental injury has been described. This possibility is rejected.
5. Cardiac Arrest: We know from the medical notes and statements that there was a significant episode of cardiac arrest. Could a cardiac arrest on its own, from whatever cause, be responsible for all of the intracranial findings in this case? It could account for the extensive ischaemic damage to the brain. It might result in a small amount of oozing of blood into the subarachnoid space from damaged capillaries. It has been suggested that it might also account for subdural haemorrhages. This controversial hypothesis (or theoretical possibility) was advanced by Geddes et al [5]. It does not fit with our clinical or radiological experience of babies with hypoxic brain damage of any known non-traumatic cause. The hypothesis was considered and rejected in the Court of Appeal in 2005.
C1 had a documented clotting abnormality, believed to be secondary to the hypoxia/cardiac arrest. Could this, added to the brain ischaemia, account for the intracranial haemorrhage? It might explain why the subarachnoid haemorrhage was extensive (rather than a tiny amount of oozing). However, if there were a significant amount of haemorrhage from reperfusion of damaged capillaries, it is surprising that there was no evidence of haemorrhage into the brain substance. Even with clotting abnormality, it is difficult to explain the subdural haemorrhages without some element of trauma.
In this respect, the dark subdural collections over the cerebral convexities are very important. They do not represent recent haemorrhage alone, and thus cannot be the straightforward result of oozing from blood vessels, even if it is accepted that this could be caused by hypoxia and/or a blood clotting abnormality. In my opinion, the 'bloodstained fluid' is most likely to represent bloodstained cerebrospinal fluid that has leaked into the subdural space through a tear/tears in the arachnoid membrane and such a tear/tears would be caused by trauma.
Thus I reject primary cardiac arrest, from whatever cause, with or without a blood clotting abnormality, as a cause of the intracranial appearances in this case.
6. Traumatic Resuscitation: It was suggested in the Coroner's Court that the constellation of findings could result from a combination of cardiac arrest, clotting abnormality and a traumatic attempt at resuscitation by a non-professional. As discussed above, it is my opinion that some trauma occurred to account for the subdural collections, in particular the dark subdural collections. Cardiopulmonary resuscitation might cause certain rib fractures, but would not normally cause head trauma. I cannot see that resuscitation, even if inexpertly performed by an amateur following instructions over the phone, could cause traumatic head injury. However, if there was shaking in an attempt to revive, then it is plausible that intracranial haemorrhage might be caused. In the documents available to me, including transcripts of the extensive police interviews, no history is given of shaking to revive.
This explanation is plausible but very unlikely.
7. Intracranial infection may be associated with brain ischaemia, subdural collections and small amounts of intracranial and subdural haemorrhage. The radiological pattern in this case is not at all typical of intracranial infection. It is my understanding that there is no clinical or post-mortem evidence for intracranial infection. This explanation is rejected as a possible cause of the injuries.
8. Choking or Aspiration: This has been advanced by some workers as a possible cause of the triad of encephalopathy, subdural haemorrhage and retinal haemorrhages. The hypothesis is not, at present, backed by clinical evidence or experience, and is not generally accepted. The details of the arguments for and against this hypothesis are best discussed by other experts, including clinicians. From the radiological perspective, even if it is accepted that choking could cause subdural haemorrhage, it would not cause leakage of cerebrospinal fluid into the subdural space and would not explain the dark subdural collections. This explanation is rejected as a possible cause of C1's injuries.
9. Immunisation: That immunisation might cause encephalopathy and intracranial haemorrhage is a minority view, and is not generally accepted. I leave it to other experts to discuss to what extent this is plausible. From my radiological perspective, even if a reaction to immunisation could cause cardiac arrest, hypoxic brain damage and intracranial haemorrhage, it would not explain the dark subdural collections. This explanation is rejected as a possible cause of the injuries."
He told me that he frequently looks at scans to make clinical and operative decisions. If he is to operate, he has to interpret from the scan the size of haematoma which he may have to remove. At paragraph 3.9 he reviewed the scan. His findings are similar to those of Dr Stoodley and Dr Gawne-Cain. He told me that any fluid seen in the subdural space is pathological and not a naturally occurring fluid. C1 did not show symptoms of cardiac arrest because there was subdural haemorrhages and because of the low attenuation. For there to have been oozing of vessels into the subdural and subarachnoid spaces, then the haematoma would have been increased in size. The amount of swelling of the brain was modest at the time of the scan.
"I am not aware of any clinical cases in which subdural haemorrhage of this appearance was seen in the context of a non-traumatic hypoxic-ischaemic encephalopathy. This is supported by the medical literature: a paper by Byard et al (2007) reviewed 82 infants and children who underwent autopsy for proven non-traumatic hypoxic ischaemic encephalopathy. None were found to have a subdural haematoma at autopsy. I am aware of the more recent abstract presented at a recent neuroradiology conference. The authors undertook a retrospective case note and imaging review of all infants under the age of three years, dying in the emergency department or admitted to the paediatric intensive care unit after a cardiorespiratory arrest, over a six year period. Of the 60 children evaluated, 45 had a combination of post-mortem examination, CT brain imaging or both. None of these infants had a subdural haematoma. It should be noted that the abstract would have been subject to peer review, but the full details of the study have not been published. In my opinion it is unlikely that the subdural haematomas seen in this case have arisen from a non-traumatic cause."
In her report of 14 January 2008, Dr Thomas speaks about C1's coagulation tests at G261:
"Coagulation tests were also checked and in Dr Collins's report [E379] it is stated that they were received in the laboratory at 11.11 on 23.4.05, which is some time after the initial collapse, hypoxic and hypothermic episodes and a period of acidosis and hypotension (F17). The results are reported as follows: prothrombin time 15 seconds (prolonged), activated partial thromboplastin time 32.8 seconds (within the normal range) and fibrinogen 0.8 g/L (NR 2-4 g/L). A thrombin time, a measure of functional fibrinogen, was correspondingly prolonged at 19.6 seconds. These are also recorded in a laboratory report (F100). Dr Collins has concluded that these results are compatible with the clinical picture of collapse and hypoxia, reflecting an early form of disseminated coagulation which is a condition in which a trigger (such as hypoxia, infection or inflammation) activates the coagulation cascade systemically and causes consumption of clotting factors and platelets resulting in prolonged clotting tests and decreased platelets. This seems the most likely explanation of the abnormal coagulation tests in this child."
"C10 There are two coagulation test results for C1: one which shows a normal fibrinogen and one taken later which shows a significantly low fibrinogen in association with a prolonged prothrombin time and normal activated partial thromboplastin time. Given the clinical picture of collapse, hypoxia, hypothermia, hypotension and acidosis, these tests are compatible with a progressive consumption coagulopathy, secondary to the clinical state and not the cause of it."
Dr Smith and Dr Squier examined microscopically a number of brain and spinal cord sections taken at the post-mortem examinations. They also examined macroscopically the brain by way of digital images taken at the time of the post-mortem examination. Dr Squier, in her report of 31 January 2008, summarises the pathological findings acute brain swelling, acute subarachnoid haemorrhage, axonal APP expression consistent with impaired blood and/or oxygen supply, axonal swellings in spinal nerve roots, subcortical splits, acute intra and subdural bleeding, fresh spinal extradural bleeding, and haemorrhage into the base of the pons.
"The pattern of spinal cord nerve root axonal injury, however, does not appear to be ischaemic in origin. I am aware of focal nerve root injury being described in the setting of brain swelling (unpublished observation) and the brain was swollen in this case. Equally, focal nerve root injury has been described in the setting of trauma.
I will attempt to interpret the neuropathological findings in relation to the specific question of whether or not there has been trauma in this case. It is important to note that there is no external evidence of trauma in this case. Much of the neuropathology is non-specific and can be attributed to the coagulopathy demonstrated by haematological investigations. I am, however, concerned by the focal subdural spinal cord bleeding associated with axonal damage within nerve roots. In my experience, this is frequently seen in alleged cases of non-accidental injury, and the cases of focal nerve root injury associated with cerebral swelling do not have surrounding haemorrhage present.
I can find no evidence of any non-traumatic disease process within the brain or spinal cord which would account for the sudden collapse of this infant. It is, however, possible that a vast majority of the neuropathological changes seen may have developed secondary to a non-neurological collapse in this infant. As noted above, however, I do have concerns regarding the focal subdural bleeding in relation to nerve roots which at one level is associated with focal axonal injury.
In summary, there is nothing from neuropathological examination of this case which would allow a definitive diagnosis of non-accidental injury to be made. Equally, there is no evidence of any neurological disease to account for the sudden demise of this infant.
In summary (in response to specific questions stated in correspondence 12.10.07):
1. "C1 has developed global cerebral ischaemia (lack of blood to the brain) resulting in irreversible brain injury and brain swelling. The cause of the sudden collapse cannot be definitively ascertained by neuropathological examination.
2. C1 has died as a result of lack of blood flow to the brain and subsequent brain swelling. This does not, however, account for his sudden collapse.
3. The potential causes of sudden collapse at this age are numerous. For example, there has been an undiagnosed cardiac cause for collapse which would produce much of the subsequent neuropathological features. However, I am concerned by the focal spinal cord pathology which, in my opinion, is suggestive of an episode of trauma. I cannot give an alternative explanation for such a lesion in the absence of trauma.
4. In my opinion, trauma is the most likely cause of sudden collapse and subsequent brain injuries, but I cannot exclude the possibility of non-neurological causes for sudden collapse (such as cardiac).
5. As above".
Dr Bonshek and Dr McCarthy examined the embedded tissue blocks and glass histology slides from C1's eyes, together with digitised photographic images of the eye specimens when dissected by Dr Leadbeatter prior to the preparation of the slides. Dr Bonshek undertook macroscopic examination. In his report at G74, under "Macroscopic Examination", he said:
"There is no key provided to identify exactly which images were made of which eye, but examination of the digital images on the CD provided by Dr Leadbeatter shows that there is extensive optic nerve sheath haemorrhage involving both optic nerve sheaths. This appears more severe at the proximal ends of the optic nerve (i.e. in the region immediately behind each eye). Here is macroscopically visible blood within the orbital soft tissue adjacent to each optic nerve and further back within the orbital fat. No views of the anterior surface of the eyes are provided, so I am not able to comment on the front of the eyes, conjunctivae and corneas. The eyes have been opened in the coronal plane, and a diagram provided on the copy of the neuropathology request form confirms that this is approximately at the equator of each eye (the mid-point from front to back). There is extensive bleeding over the surface of the retina of each eye in all retinal areas. There is widespread retinal thickening due to oedema and, in addition to post-mortem retinal folding, there also appear to be broad perimacular folds present in both eyes. Widespread intraretinal bleeding amounting to retinoschisis (splitting of the retina) is evident along the cut margins of the retina of each eye. Haemorrhage in the posterior portions of the eyes, associated with the perimacular folds, obscured the optic nerve heads in both eyes so that these structures are not visible. In one of the eyes – it is not indicated whether this is the left or the right in the information provided to me – there is quite marked detachment of the anterior vitreous gel which can be seen appearing to 'billow out' behind the lens. Some blood can also be seen trapped within the interstices of the various vitreous compartments. Given the way in which the eyes have been opened (in the coronal plane) there is no opportunity to examine the anterior chamber structures macroscopically. The lenses appear to be macroscopically normal."
"Examination of the sections prepared in the Cardiff laboratory reveal that there is very extensive retinal haemorrhage affecting all retinal layers and all retinal areas in both eyes. There is some degree of autolysis, which may be a reflection, in part, of the considerable damage to these retinas. There is extensive pre-retinal blood, as well as subhyaloid (beneath the vitreous) bleeding and focal bleeding into the vitreous. Many areas of retinal detachment, with subretinal blood, are present and, in some areas, there are small foci where there has been retinal pigment epithelium (RPE) detachment with sub-RPE bleeding. However, much of the RPE in both of the eyes is detached by artefact. There is extensive vitreous detachment. Whilst vitreous detachment may occur due to post-mortem artefact, in both of these eyes it is associated with, in the area of the vitreous base, detachment of peripheral anterior retina and ciliary body. Here some areas of haemorrhage beneath the detached ciliary body epithelium are evident, indicating that this is an ante-mortem phenomenon. Somewhat oblique cuts have been prepared through the histology blocks which include anterior segment. Here the anterior chamber of each eye can be seen to contain proteinaceous exudates, but no blood. There is some artefactual detachment of the corneal endothelium and some artefactual lifting and detachment of corneal epithelial cells. There is no evidence of conjunctival, subconjunctival or episcleral haemorrhage. The cornea, iris and lens do not appear to have been disrupted, but the histological view is quite restricted because of the orientation of the tissue blocks. In both eyes there is extensive bleeding within the sclera in the area of the vascular circle of Zinn adjacent to the optic nerve insertion into the eye. In the left eye this bleeding is linked to a focus of choroidal haemorrhage. In the central retinal vein of the right eye, at the optic nerve head, there is a collection of blood clot adherent to the vessel wall. In two veins within the orbital tissue adjacent to the right eye there is also more blood clot. In further sections prepared in the Manchester laboratory, this clot is seen to extend to the branching point of a large vein. Many of the peripheral nerves within the orbital tissue adjacent to both eyes contain blood beneath their external sheaths. Bleeding has also occurred free within the orbital fat and within the eye muscles. There is very severe optic nerve sheath bleeding (most marked in the anterior parts of the nerves) with intrasheath blood, subdural and subarachnoid bleeding, and bleeding external to the optic nerves."
"In the case of C1, whilst extensive and severe retinal haemorrhages are a major feature, other significant findings present are: perimacular folds, retinal detachment, retinal oedema, vitreous detachment, RPE detachment and haemorrhage, choroidal haemorrhage, scleral haemorrhage, haemorrhage beneath the ciliary body epithelium, anterior chamber exudates, optic nerve, sheath haemorrhage and orbital haemorrhage, and acute inflammatory cells within the conjunctive eye."
"The reports provided by Dr Steven Leadbeatter and Dr Richard Bonshek are both extensive and detailed, and refer to various descriptions of causation contained in Medical Literature. There is an abundance of Medical Literature on this subject. However, in my opinion, there has been little true scientific progress in the last five or so years regarding the pathophysiological causation of the features seen in this so-called triad.
In this case the minor injuries that have been noted, and in particular I refer to the small bruising to the left side of the back of the scalp and the small areas of bruising below the jaw, have been attributed to the acts of resuscitation and the subsequent coagulopathy. In this respect, if this is the case, then there is no unequivocal evidence of any impact injury to his child.
The possibility of a soft impact is also considered wherein no actual bruising has been caused. This can neither be included nor excluded.
Thus, in the absence of any definite impact injury to the head of this child, one has to consider the possibility that the subarachnoid haemorrhage, the cerebral encephalopathy and the haemorrhages into the eyes have been caused during an act of shaking injury. This child was eight weeks of age and prior to Wednesday 20th April 2005, was in apparent good health and thriving. This child received multi-agent vaccination on the 20th April 2005 from which time the child was said to be more sleepy than usual. This is clearly subjective and is not amenable to verification. However, in terms of causation of the type of haemorrhage, brain swelling and lesions identified in this child at the time of admission to hospital, I believe that the temporal association with vaccination is merely coincidental. I know of no peer reviewed literature which would suggest that this triad of features can be caused by vaccination.
Turning now to the suggestion that the encephalopathy, the subarachnoid haemorrhage and the retinal haemorrhages were a consequence of a cardiac arrest of unknown cause with subsequent coagulopathy, this similarly falls into a category wherein there is no verified peer reviewed literature to indicate that this is an event that occurs or can occur with any frequency. I know of no verified accounts of cardiac arrest resulting in the triad of features as seen in this child. This suggestion appears to be based on a hypothetical situation and perhaps has been reinforced by fairly recent medical literature, which hypothetically regards the features of the triad as being secondary events subsequent upon some other causative event. These have variously been suggested as Pertussis infection, bouts of continuous coughing, retching and vomiting, and other non-specific events that result in raised venous pressure within the brain and within the eyes. Apnoeic events and trivial injury have also put forward as suggestions, as have other events. …
Regarding the wellbeing of this child and the history given, it is highly unlikely that this child would have been able to function to any normal extent following the development of the brain swelling, subarachnoid haemorrhage and retinal haemorrhages. Therefore, it is entirely likely that these findings developed at or very close to the time that the haemorrhage occurred, i.e. the history given that this child was sleeping in the bath at 20.00 hours and then took a small feed at 21.00 hours, indicates that the child could not have been suffering these devastating injuries at that time. The paramedics attended at 23.20 hours and it is entirely likely that these injuries occurred shortly before that time.
In final conclusion, therefore, I would agree with the report that has been issued by Dr Richard Bonshek, and in particular the statement that Dr Bonshek has made on page E437 where he says: 'I am at a loss to find a credible alternative explanation for the findings within the eyes and associated structures of C1". As such, Dr Bonshek is indicating that this child has sustained these features and lesions as a result of shaking with or without a component of impact.
I am unaware of any peer reviewed medical literature relating to the development of the features seen in this child as a result of a spontaneous inexplicable cardiac arrest episode. I agree with the suggested causation as given by Dr Bonshek that shaking has been the most likely cause of this child's cerebral swelling, encephalopathy and ocular haemorrhages. I am unable to specifically support the suggestion of an impact injury, although I cannot exclude impact onto a yielding soft surface. There is no witness evidence to suggest accidental injury. I do not believe that this is a natural disease process."
Dr Vujanic, as with other experts, has read a mass of documentation in this case, which is set out in his report of 31 January 2008. In addition to examining the slides in respect of the brain and the eyes, Dr Vujanic examined no less than 62 histological slides of many parts of C1's body. He sets out in extenso Dr Leadbeatter's post-mortem findings. He refers to Dr Smith's neuropathological examination, to Dr Bonshek's examination, and to Dr Stoodley's report and findings. At G408 he said:
"I agree that the numerous marks found on post-mortem examination…"
(That is a reference to the bruising on the exterior of C1)
"…could be attributed to attempted resuscitation. Also the finding of two bruises on the underside of the chin and bruises on the anterior abdominal wall could be secondary to consumptive coagulopathy rather than representing genuine non-accidental bruises. Finally, the microscopic rib fracture not seen on any other examination but found on post-mortem histological examination also could be attributed to attempted resuscitation."
Having then referred to Dr Smith's views and Dr Bonshek's findings, he wrote at G409:
"I agree that many of the findings could be related to a prolonged period of circulatory arrest and resuscitation with consequent consumptive coagulopathy. Many of the mentioned pathological findings may explain the mode of death but they do not account for how the original collapse that precipitated hospital admission occurred. Possibilities that might explain such a collapse include:
(a) A specific natural cause.
(b) So-called 'near miss' Sudden Infant Death Syndrome (now called apparent life-threatening event – ALTE).
(c) Shaken Baby Syndrome.
A) A specific natural cause
A very through post-mortem examination and subsequent second neuropathological and eye examinations failed to identify any natural cause or non-traumatic disease process within the brain or spinal cord which would account for the sudden collapse of the child. Therefore, I think that a specific natural cause was not the cause of the sudden collapse.
B) 'Near Miss' Sudden Infant Death Syndrome
C1 was in an age group where natural deaths of obscure causation are known to occur. In some cases the infant is discovered after the initiation of whatever process it is that leads to death but before death has actually occurred ('near miss' SIDS). Although resuscitation might be successful, there may be serious consequences if the heart has stopped beating for a significant period of time. However, in such cases extensive retinal haemorrhages and other brain damage seen in this child are not found, and I think that this was not the cause of C1's sudden collapse.
C) Shaken Baby Syndrome
Shaken Baby Syndrome (SBS) is a widely recognised diagnosis in the medical literature. The medical components of SBS include retinal haemorrhage, subdural or subarachnoid haemorrhage and associated fractures with a paucity of external physical findings (Caffey J. The whiplash shaken infant syndrome: Manual shaking by the extremities with whiplash-induced intracranial and intraocular bleeding, linked with residual permanent brain damage and mental retardation. Paediatrics 1974; 54: 369 -403). The presentation of SBS originates from a mechanical injury, which results in angular rotation of the infant's head sufficient to crate acceleration and deceleration forces of the type frequently encountered in major automobile collisions. The clinical presentations vary from a pure shaking incident, where the child is violently shaken; blunt force injury, where the child is thrown or receives a blunt impact injury to the head; and, finally, as a component of other injury in the battered child syndrome.
Many reports have offered evidence that shaking alone can produce life-threatening injuries in infants (Alexander R, et al: The incidence of impact trauma with cranial injuries ascribed to shaking. Am J Dis Child 1990; 144: 724 – 726; 3. Gilliland MGF, et al: Shaken babies: some have no impact injuries. J Foren Sci 1996; 41: 114 – 116; 4. Lazoritz S, et al: The whiplash shaken infant syndrome: has Caffey's syndrome changed or have we changed his syndrome? Child Abuse Neglect 1997; 21: 1009 – 1014). Further support for the latter claim comes from the statements of perpetrators and other witnesses and the lack of evidence of impact. The relative incidence of brain injury due to the shaking or the impact injury remains unknown; in many cases both forms of injury may be present. However, despite the debate over the exact mechanism of injury, the classical findings of retinal haemorrhages, subdural haematoma, and brain damage cannot be fully explained by any other medical entity.
The SBS apparently results when a young child is shaken by holding the thorax, shoulders, or abdomen. This shaking must be done by an individual much larger than the child, usually an adult, in order to achieve sufficient acceleration of the body of the child. During the shaking it is assumed that the head can be whipped back and forth because of the relative inability of the infant to control its neck muscles and because of the relatively large mass of the head in relation to body. This mechanical instability perhaps explains why whiplash-shaking deaths are uncommon in children older than one year. In addition, the infant skull has the flat base and still not developed fossae (that typically hold the adult brain in place) permitting more rotation to the brain than in adults during acceleration-deceleration. Finally, the underdeveloped myelinisation of the neuronal axons of the child's brain predisposes to laceration of long neurons which is a typical injury/finding in SBS.
The victim of the SBS may have bruising over the upper extremities, neck or the chest where the child was held and shaken. However, bruising is more the exception than the rule. Old or new fractures of the long bones and/or ribs may be present in the shaken baby syndrome but they represent associated secondary injuries which indicate that the child has been abused during his/her life and not primary injuries due to the primary effect of shaking forces.
Retinal haemorrhages have been rarely documented after resuscitation. (Wissow LS. Child abuse and neglect. N Engl J Med 1995; 332: 1525-31; Odom et al. Prevalence of retinal haemorrhages in paediatric patients after in-hospital cardiopulmonary resuscitation; a prospective study. Paediatrics 1997; 99: E3). Studies addressing this issue have not shown as association between retinal haemorrhages and cardiopulmonary resuscitation in the absence of pre-existing brain trauma, seizures, tumours, sepsis, severe dehydration or coagulation defects. (Gilliland MG et al. Are retinal haemorrhages found after resuscitation attempts? A study of the eyes of 169 children. Am J Forensic Med Pathol 1003; 14: 187-92; Kantor R. Retinal haemorrhage after cardiopulmonary resuscitation or child abuse? J Pediatr 1986; 108: 117-32). An experimental study using piglets could not induce retinal haemorrhages through resuscitation (Fackler J et al. Retinal haemorrhages in newborn piglets following cardiovascular resuscitation. Am J Dis Child 1992; 146: 1294-6). The severity and type of retinal haemorrhages and other pathological findings in this case, as Dr Bonshek concluded, indicated severe trauma due to non-accidental injury.
As for the impact of the vaccination of C1 and whether this could, in whole or in part, explain the injuries that C1 subsequently displayed, I confirm that I am not aware of any literature linking routine immunisation with pathological changes found in the brain and retina of C1, but this is not my area of expertise and I defer to Dr G Debelle's comments in his paediatric overview.
Taking into account all clinical, imaging and pathological findings and opinions, I think that C1 had collapsed and later died due to a non-accidental head injury. He showed a combination of findings which indicate inflicted injury by shaking."
1. "Both Drs Stoodley and Bonshek are of the opinion that baby C1 had suffered brain injury resulting in his collapse and unconscious state on admission to hospital, and that the injury had been sustained shortly before his admission. Both rejected the concept that the child's death was in any way related to the routine inoculations he had received shortly before his death.
2. I would agree with this conclusion. I know of no concrete evidence linking routine immunisations with intracranial pathology of the type seen in this case. Head injuries and sudden unexpected death from other causes often affects children of this age, and this is also the time at which immunisation is given. The two events may well be temporally related, but not in a causal sense.
3. Dr Bonshek did not think that the retinal haemorrhages were related to resuscitation.
4. I entirely agree with both Drs Stoodley and Bonshek that this child had died as a result of a head injury, the characteristics of which indicate an inflicted nature.
5. The triad of findings that most authorities involved in child protection would regard as indicative of a shaking or shaking impact injury, namely intracranial haemorrhage (subdural and subarachnoid haemorrhage), retinal haemorrhage and encephalopathy, were present in this case.
6. Dr Stoodley refers to a minority medical opinion that this triad of findings can occur in situations other than non-accidental head injury. They have suggested factors such as aspiration of milk during feeds, choking, vomiting, paroxysmal coughing or gastro-oesophageal reflux. Dr Stoodley remarks that these opinions are in the main expressed by those who do not have day-to-day involvement in a clinical or radiological management of infants or children who suffer from these conditions and that the opinions expressed by these practitioners is not supported by everyday clinical experience.
7. I would wholly endorse this opinion and would note that the characteristics of the individual components of the triad are of great importance in distinguishing those cases due to non-accidental injury.
8. Shaking or shaking/impact involves severe rotational acceleration/ deceleration forces that have the effect of causing the brain to rotate within the skull. This ruptures small communicating veins on the surface of the brain that are the source of the subdural haemorrhage. These haemorrhages are important only as an indicator of the mechanism of injury. They do not form significant space occupying lesions, as do the more extensive collections of blood (subdural haematomas) mostly seen in older patients. The subdural and subarachnoid haemorrhages in this case clearly form only thin films as indicated by the post-mortem photographs.
9. The retinal haemorrhages associated with rotational acceleration/ deceleration injuries are typically extensive, involve all layers of the retina and are usually associated with haemorrhage around the optic nerves, all features that were present in this case. Retinoschisis and perimacular folds are also features characteristic of this type of injury.
10. Detailed neuropathological examination can indicate evidence of trauma to nerve cells and their extensions within the brain. These may be in addition to changes caused by hypoxia and ischaemia that are almost invariably present in babies who survive on life support. There may also be evidence of previous head injury, and for both these reasons I await the expert neuropathological report by Dr C Smith with interest.
11. Because non-accidental injury is often a repeated phenomenon by abusing carers, the presence of more than one head injury or evidence of non-accidental injury in other systems of the body are often regarded as useful additional factors in distinguishing between accidental and non-accidental injury.
12. Dr Bonshek mentioned the presence of haemosiderin in the optic nerve haemorrhages as a possible indicator of previous injury in this child and, like me, looked for possible further confirmation of previous head injury from the report by Dr Smith.
13. The fact that apparently non-accidental injury has occurred to the sibling of this child could be taken as evidence of further abusive behaviour by a carer.
14. I can see no reason to link this child's death with resuscitation. The child was only resuscitated after he had collapsed. Resuscitation would not cause subdural or subarachnoid haemorrhage."
He also has given a further witness statement, which is at G102A and B, which I have read and was part of his evidence.
Dr Geoffrey Debelle's report is dated 22 February 2008 and is at G432. Dr Debelle, having anxiously and carefully considered all the various matters and the opinion of the other expert, concluded at paragraph 78 as follows:
"In my opinion, C1 suffered a single episode of inflicted traumatic head injury, with sudden collapse with hypoxic encephalopathy, hypothermia, retinal haemorrhage and subdural haemorrhage on the surface of the brain and in the cervical and lumbar area, the latter being possibly due to post-mortem artefact. The absence of any scalp swelling fracture does not lessen this possibility as the proposed mechanisms of injury do not involve linear impact onto a hard surface, nor does the apparent difference of opinion about the spinal nerve root damage. No other cause for his collapse and death, such as infection, vaccine-induced encephalopathy, near-miss Sudden Infant Death Syndrome, neurovascular anomaly, inherited metabolic disease or primary coagulation defects could be identified. I accept that the external bruising and the microscopic rib fracture may well be secondary to coagulopathy and efforts at resuscitation. However, the extent and distribution of the retinal haemorrhages and distribution of the subdural blood is consistent with inflicted traumatic head injury. In addition, the suddenness of the collapse is consistent with inflicted traumatic head injury."
I adopt, with respect, the descriptions given by the Court of Appeal, Criminal Division, in its judgment on 21 July 2005 in R v Harris, Rock, Cherry and Faulder [2005] EWCA Crim 1980, at para 63-65:
63. "As already stated, when the three elements of the triad coincide for some years conventional medical opinion has been that this is diagnostic of NAHI. Typically the brain is found to be encephalopathic; blood is found in the subdural space between the dura and the arachnoid subdural haemorrhages; and there are retinal haemorrhages. There may also be other pathological signs such as subarachnoid bleeding and injuries at the cranio-cervical junction. Further, there may be injuries to nerve tissue (axonal injuries) and external signs of broken bones, bruising and other obvious injuries such as extradural oedema (bruising). Determining these findings requires medical experts from a number of different disciplines interpreting often very small signs within the complex structures of an infant's brain and surrounding tissue.
64. The mechanism for these injuries is said to be the shaking of the infant, with or without impact on a solid surface, which moves the brain within the skull, damaging the brain and shearing the bridging veins between the dura and the arachnoid. The shaking may also cause retinal haemorrhages. In the sense that the explanation for the triad is said to be caused by shaking and/or impact it also is a unified hypothesis, albeit that each element is said to be caused individually by trauma.
65. The triad of injuries becomes central to a diagnosis of NAHI when there are no other signs or symptoms of trauma such as bruises or fractures."
66. "Dr Geddes and her colleagues, following research into almost 50 paediatric cases without head injury, proposed that the same triad of injuries could be caused by severe hypoxia (lack of oxygen in the tissues) which in turn led to brain swelling. The hypothesis was that brain swelling combined with raised intracranial pressure (ICP) could cause both subdural haemorrhages and retinal haemorrhages. Thus, is was argued that any incidents of apnoea (cessation of breathing) could set in motion a cascade of events which could cause the same injuries as seen in the triad. It will be appreciated that there are many events which could accidentally cause an episode of apnoea.
67. In Geddes III the unified hypothesis was summarised as follows:
'Our observations in the present series indicate that, in the immature brain, hypoxia both alone and in combination with infection is sufficient to activate the pathophysiological cascade which culminates in altered vascular permeability and extravasation of blood within and under the dura. In the presence of brain swelling and raised intracranial pressure, vascular fragility and bleeding would be exacerbated by additional homodynamic forces such as venous hypertension, and the effects of both sustained systemic arterial hypertension and episodic surges in blood pressure.'
Thus, it was suggested that all the injuries constituting the triad could be attributed to a cause other than NAHI. We understand that this paper has been much cited in both criminal and civil trials since its publication."
The Local Authority
The overwhelming medical evidence is that the abnormalities found in the brain and eyes of C1 can only be fully explained by him suffering an episode of trauma, probably shaking. Between paragraphs 22 and 63 of their written submissions, Miss Mifflin and Miss Williams analyse the medical evidence. In paragraph 64 they submit that the court needs to be able to find an explanation that fits all the abnormalities found in C1. The only cause that fits all is trauma, and, in the absence of accidental trauma, that leaves only inflicted head trauma. Taking into account all the circumstances both medical and non-medical, they submit that the court is drawn to the inevitable finding that C1 was assaulted by the father on the night of 22 April 2005 by shaking and/or shaking impact.
"Both doctors explained to the court in some detail their conclusions and the basis upon which they were reached. We would submit that they were well thought out and are supported in many respects by the other experts in the case.
(a) The widespread hypoxic-ischaemic brain injury was secondary to cardio-respiratory arrest, with a prolonged period of no cerebral blood flow. It is a non-specific finding and in itself does not indicate trauma.
(b) C1 had a coagulation abnormality, together with a prolonged period of hypoxia, together with resuscitation. Under such circumstances the blood vessels in the brain may become leaky and the blood flow through them is re-established reperfusion injury. This becomes the more likely the longer there has been a failure of blood and oxygen supply because it damages the linings of the small blood vessels.
(c) Most of the bleeding seen on post-mortem is around the blood vessels. There are small areas of bleeding with few cells getting out. There are not large collections of blood that you might have expected had any of the blood vessels ruptured. In our submission, this supported the idea that the abnormal coagulation was causing blood to seep from the blood vessels into the subdural and subarachnoid spaces, and that it was causing the retinal haemorrhages."
They submit that the Coroner was impressed by their evidence at the inquest and found death by natural causes. In paragraph 20 they say:
"What has changed? There are no new facts. The only difference is the evidence from the neuroradiologists and the ophthalmologists. If there is an alternative explanation for their findings or there may be, the verdict of the Coroner should carry some considerable weight."
48. "We accept that the court cannot look at individual components of the trial in isolation, and that the court has to take an overall view of the evidence. However in doing that, a thorough investigation of each individual component of the triad needs to be carried out, and it is only when all other causes have been realistically excluded and the only remaining explanation is trauma that the court should find the case proved.
49. There are other non-traumatic explanations for all the findings in this case. There is a wide diversion of medical opinion as to how valid each of the explanations is. When the wider canvas is put in the balance as it should be, we submit that the court cannot be satisfied that those explanations, taken together and individually, are so improbably the cause or the findings as to leave shaking the only acceptable explanation. The evidence cannot be regarded as sufficiently cogent as to overcome the improbability of this father killing his son."
The following causes for C1's death have been explored in the evidence. They are trauma to the head, overwhelming infection, suffocation, cardiac arrest, whether or not following from Prolonged QT Syndrome, and reaction to immunisation.
In my judgment, suffocation of C1 is not even a possibility on the evidence. The only medical expert to put it forward was Dr Sunderland. He told me that he had raised it for completeness' sake. There was, he said, very marked hypoxic-ischaemic damage. C1 was heard and seen by the father to be hiccupping. It was that which could support suffocation. However, when cross-examined by Mr Furness, he told me categorically that suffocation was not the cause of C1's death and that his report at paragraphs 3.17 and 3.10 should now be amended to read that suffocation could be excluded.
Dr Leadbeatter, at post-mortem examination, found no evidence of infection. The neuro-pathologist found no evidence of infection. Both were agreed about that. The haematologists agreed there was no evidence of infection. The paediatric pathologists could find no evidence of infection, nor could the ophthalmologists. Dr Debelle saw no evidence for infection and he repeated that opinion several times in his evidence. The only medical expert who did support infection as the cause of C1's collapse was Dr Sunderland. He told me that he was suggesting septicaemia as a cause of C1's death. He seemed to me to base that suggestion on two matters. First, C1's white blood cell count was raised. Indeed, he said it was very high. Second, when C1 was admitted to hospital, he was found to have petechiae on his tummy which, in Dr Sunderland's hospital in Birmingham, would be treated immediately as a sign of blood poisoning. As to the white blood cell count, the passage at 5.02.2 of Mr Edwards' report, which is to be found at G311 and G312, was put to Dr Sunderland by Mr Rees for the grandparents and then by Mr Furness, namely.
"As part of his resuscitation, intraosseous needles were placed and the Prince Charles Hospital medical records state that the initial blood and haematological investigations sent showed evidence of a grossly elevated white cell count of 53.6 x 10 9/1. I have been in many situations where infants have been resuscitated using intraosseous needles. Intraosseous needles access the central part of the tibia bone which contains the 'bone marrow'. This part of the bone has a rich blood supply and in an emergency setting can be used for the administration of drugs and fluid when blood vessels access cannot be obtained. It is my opinion that the elevated white count on the first specimen sent from the intraosseous needle is entirely consistent with a 'normal' intraosseous specimen. The bone marrow is responsible for white cell production and therefore normally contains more white blood cells than venous blood. Therefore, I am not surprised that the white cell count is elevated and do not think this is of any significance. I do not believe that it reflects either a severe reactive response to the trauma or supports any evidence of acute infection."
Dr Sunderland, having had that passage put to him, agreed that in the light of those observations, he could not rely upon the elevated white blood cell count as any evidence of infection. The elevation, he said, could be related to stress.
"I have provided some related comment in my answer before question 32 (Re Dr Sunderland's 3.14). I believe that I may have seen microscope slides from the case to which Dr Sunderland refers. The case I have seen has been presented by Prof Luthert to eye pathology meetings and I have been given the opportunity to review them. This is a case of bacterial meningitis and bacterial meningitis is a rare but recognised cause of retinal bleeding. The cases which have been reported in the literature, however, have not shown such extensive retinal bleeding as found in the case shown by Prof Luthert. It remains the case that the case mentioned by Dr Sunderland (and shown by Prof Lutert) did have meningitis. I am not aware that C1 had meningitis."
There is a further factor which points away from infection. Dr Thomas told me that antibiotics were administered to C1 at about midnight. At just after 11.00 am on 23 April the blood was analysed. There was no sign of infection. If infection had been present, one dose of antibiotics would not have reversed it. The blood culture was negative for infection.
I wish to say that it is a very natural and understandable reaction that when a child suddenly dies within a short span after he has been immunised, a parent or parents might conclude that the only explanation for the child's death was an adverse and fatal reaction to that immunisation. But, I must emphasise, no medical expert has given any credence whatsoever to such a belief. Therefore I have to say, on the evidence, that I am driven to rule it out as a cause of C1's collapse and/or death.
The parents went to see Professor Peter Fleming, Professor of Infant Health and Development Physiology in the Department of Neonatral Medicine at St Michael's Hospital in Bristol. It is apparent from his letter of 24 October 2005 to the parents that he spent a lot of time explaining to them that it was unlikely that C1 had died as a result of his immunisation. At the end of his letter he wrote the following passage:
"There are some very rare conditions which can contribute to sudden and unexpected deaths in infancy and which can be precipitated by minor stresses; for example, infections or immunisation and which are not detectable post-mortem. The most important of these is a group of conditions called the Prolonged QT Syndrome in which there is an abnormality of the electrical conduction system in the heart, which may cause sudden death, particularly under such circumstances.
Although from your description it sounds extremely unlikely that C1 suffered from this condition, my recommendation would be that your new baby should be checked for this condition by having an ECG, an electrical recording of heart activity. In order to be certain that this will identify Prolonged QT Syndrome, the ECG must be done when the baby is at least two weeks of age."
"Extensive hypoxic-ischaemic change, involving the thalami and cerebellum are occasionally seen in the context of trauma, including more severe cases of suspected inflicted head trauma. I am occasionally asked to give opinions regarding intracranial pressure monitoring in children who have suffered a hypoxic-ischaemic insult following non-traumatic cardiorespiratory arrest from which they have been resuscitated, but have never seen such extensive changes manifesting on a scan taken within three hours in this patient group.
There is extensive subarachnoid haemorrhage present particularly over the cerebral convexities (3.0/04). In the absence of any identified vascular pathology or evidence of cerebral vasculitis, in my opinion the most likely cause of the subarachnoid haemorrhage in this case is trauma. Although in hypoxic-ischaemic encephalopathy, particularly in the presence of a severe coagulopathy bleeding can occur, it would be unusual to see a subarachnoid haemorrhage of this extent. I am also of the opinion that the degree of subarachnoid haemorrhage is no worse at the time of post-mortem than it was on the scan performed at 2.00 am on the 23rd April 2005. As the clotting anomaly was not corrected for at least three and a half hours after the CT scan, were the subarachnoid haemorrhage to be a direct result of oozing from an 'encephalopathic' brain, I would have expected to see an increased amount of subarachnoid haemorrhage present."
The pattern of subdural haemorrhage seen in C1 is typical of those seen in suspected head injury, was Mr Edward's view. Further in his report at paragraph 5.03.20, he said this:
"The only other possible cause of a low attenuation collection in the subdural space is a 'chronic' (old) subdural haematoma. These would typically be at least two weeks of age. Chronic subdural haematomas of this age are invariably associated with a subdural neomembrane. Such a neomembrane was not found on post-mortem examination. Furthermore there was no evidence of old haemorrhage on the post-mortem examination. In addition to this the low attenuation collections had significantly reduced in size at the time of the post-mortem examination. This would be consistent with the fact that the low attenuation collections are of bloodstained cerebral spinal fluid, rather than clot, as the blood stained spinal fluid would have been dispersed by the progressive brain swelling that occurred in the hours after the CT scan. In my opinion, in this case the only possible explanation for this finding is an acute traumatic event."
(i) "A single event which caused hypoxic-ischaemic encephalopathy and the intracranial spinal and retinal haemorrhages;
(ii) an event which causes HIE followed by a secondary event resulting in bleeding; that is to say, a pre-existing or secondary acquired encephalopathy; and
(iii) a primary bleeding disorder leading to HIE."
I spend no time on (iii) because the haematologists ruled that out. Thus, that leaves (i) and (ii). Mr Edwards then set out in report at paragraphs 5.05.18 through to 5.05.22 as follows:
"It is my opinion that a traumatic event is the only single event that could lead to both hypoxic-ischaemic encephalopathy and the bleeding seen.
There are three possible causes of trauma in this age group.
Firstly that it was related to birth injury: this can be discounted as there is no suggestion either from the clinical history (C1 was completely well up until the day of his collapse), the radiological findings (none of which was an 'old' injury) and the post-mortem findings which showed no evidence of 'old' bleeding that could date back to the time of birth.
The second possibility is that the trauma was accidental. However, no accidental trauma was reported by either parent or the maternal grandmother who were the only people in sole charge of C1 prior to his death. Furthermore, C1 was non-ambulant; therefore, even the 'trivial' falls occasionally put forward as explanations for findings such as these can be excluded.
By deduction, the only possible traumatic cause of C1's injuries that remain is therefore inflicted head injury."
Mr Edwards further relies upon the triad, CG227. It is unnecessary for me to set all that out.
Dr Squier, instructed on behalf of the father, agreed in cross-examination by Mr Furness that there was very little dispute between her and the jointly instructed expert, Dr Smith. The only difference related to the axonal swellings and associated blood, as I have set out in this judgment above. However, before I come to that, there is one piece of evidence given by Dr Squier which I have touched upon and which, in my judgment, was a mistake by her and a significant one at that. In her report at G419 she said:
"Removal of the spinal cord is often a very traumatic procedure, and I believe that the bleeding may be an artefact induced by removal of the cord."
She is there referring to removal of the spinal cord at post-mortem examination. Dr Smith, having seen Dr Squier's report, responded at GA46 that it could not be a post-mortem artefact for the reasons he gave and which I have set out earlier in this judgment. It was not until she came to give evidence did she concede that it could not be a post-mortem artefact. Her revised position became that the damage was due to coagulopathy, which Dr Smith had not factored in. I have already recounted Dr Smith's response to that. I accept the criticism made of Dr Squier's evidence in paragraph 58 of Miss Mifflin's and in paragraph 13.3 of Mr Furness's submissions. Dr Squier, in my judgment, made a mistake which, if she had thought about it, she ought not to have made. The shifting of her ground on this basic point makes me look at the remainder of her evidence with especial scrutiny.
Both Dr Boshek and Dr McCarthy were in agreement, so I will not repeat their evidence. They found not only extensive and severe retinal haemorrhage, but also other significant findings which I have set out above. The effect of their evidence is, in my judgment, that their findings in relation to C1's eyes can only be explicable as a result of trauma. Both doctors recognise the need for caution and considered all the alternative postulated causes, and none of those alternative causes could result in the ocular findings in C1's eyes, in their opinion.
Both Dr Vujanic and Professor Risdon are in agreement that the cause of C1's collapse was a non-accidental inflicted injury for the reasons each gave in their evidence, and which I will not repeat.
Dr Sunderland accepted in his evidence that his view that shaking could not cause the injuries seen in C1 is a minority view. He accepted he relied upon biomechanical research evidence, specifically crash dummies. He conceded that this area was outside his expertise. I agree with the submissions of Miss Mifflin and Mr Furness that the opinions of Dr Sunderland are of much less value than they might otherwise have been because he is not really prepared to accept that the shaking hypothesis has any validity at all. He relied on biomechanical research, but no biomechanical consultant was called before me. Furthermore, as I have demonstrated, he was compelled to abandon suffocation as a cause, and his evidence relating to infection as a possible cause was shown to be, in my judgment, completely flawed. The fact of the matter is that Dr Sunderland's evidence was not objective, but started from a preconceived position that shaking cannot cause the injuries seen in C1.
"Despite the force required being obviously inappropriate and having been involved in many cases of alleged non-accidental head injury, I am of the view that the majority of these injuries occur when an otherwise reasonable carer suffers a momentary loss of control, usually out of frustration at a situation such as being unable to settle an inconsolable child, without there being any intent to cause the child harm."
That observation was not gainsaid by any other expert. Thus, what he is telling me is, from his experience, this sort of trauma can be caused to the child by reasonable as well as unreasonable carers.
"I next saw C2 and his parents on the 22nd June 2006 (22/06/2006) when C2 was 11 weeks and one day old. At this consultation C2 was in a baby seat and when I asked how things were going, F replied something like 'All right until two days ago.' This then opened our conversation regarding an incident two days earlier when F had C2 lying on the floor under a plastic baby gym, with tubing and some fabric covering and toys hanging down. F had walked past to the kitchen to make a drink.
On return he had been going to pick C2 up and, while walking past, he accidentally kicked the baby gym which fell against C2's face. I clearly recall that F was sure that his foot had not made contact with C2's face and that it was in fact the baby gym.
They informed myself that they had taken C2 directly to the A and E Department at the Heath Hospital on Tuesday evening, but that he had been discharged. I then documented the injuries as I saw them. He had bruising to the right side of the face from the peri-orbital area, from the nose area to the right ear. There was also bruising and swelling around the eye on the upper and lower lids. I did not inform the parents at this stage, but I had concerns whether a plastic toy could cause such injuries, as I was now seeing C2 with these injuries some two days after the event."
Dr Papworth's notes are at F360. She told me in evidence that she made a note of exactly what the father had told her. Nothing was said about the father's foot coming into contact with C2's face.
She is a Consultant Community Paediatrician. At the request of the local authority, she saw C2 on 23 June at 3.00pm at the Royal Gwent Hospital. Prior thereto she had understood from Detective Constable Chard and Mandy Vernon, a social worker, that they understood that C2 had been lying on the floor under the baby gym and the father had caught his foot on the frame, which had hit C2's face. In her statement of 25 July 2007, Dr Rawlinson says at G60:
"I next saw C2 who was accompanied by both parents. Also present was my registrar Dr Jo Saunders. Informed consent was obtained for an examination under child protection procedures from the baby's father, F. They told me that he is a healthy baby who had been born at the University Hospital of Wales weighing 8lbs 8ox by an elective caesarean section. He had not required any special care. He had been breastfed for around seven days and subsequently commenced in bottle feeding. He is feeding well on SMA white cap and is now eleven weeks of age. I was told that at four to five weeks of age C2 had had bleeding from his nose and had also been taken to the University Hospital of Wales where he was seen on the Paediatric Unit and discharged. I was told 'he had burst a blood vessel in his nose'. They went on to tell me that he has been developing well and now smiles and laughs. I was told that he has rolled from his back to his front last week, is holding his head up well and can move around on the floor. He will grab onto clothing when he is picked up.
The family told me that on the evening of Tuesday 20th June his mother had been out for the evening and C2 had been in the care of his father. After his mother had returned at around 9.40pm, C2 was on the floor under his baby gym. His father told me that he had gone out of the room, and when he came back in he had caught his foot on the baby gym frame and had kicked the frame accidentally into C2's face. Both parents had been present. They had noted swelling around C2's right eye and had gone to A and E at the University Hospital of Wales at approximately 10.20pm where he had been checked over and sent home.
Mum told me that the bruising had come out more yesterday and was actually a little less evident today. C2 had been fine since and had been feeding well. I specifically asked if C2 had any marks anywhere else before I commenced the medical. His mother told me before I examined him that he had a bruise on his right leg. The family thought that this was from his cot sometime last week, and told me that he kicks against the wooden cot bars. They also felt this could have occurred from a changing mat with metal framework which is clipped to the travel cot and is a piece of equipment with which I am not familiar. They also told me that he had a little mark on his left upper arm which they thought was from the car seat which is apparently difficult to use and was shown to me. Mum told me that this never looked like a bruise, but went on to tell me that, in her words, 'it had initially looked like a love bite a couple of days ago'."
"Head and Neck
1. There were blotchy patches of petechial bruising present over an area above and below the right eye and extending onto the eyelid and cheek. These patches of bruising were blue in colouration. There was slight soft tissue swelling present under the eye; there was a full range of eye movements, and no subconjunctival haemorrhages visible, although the sclera (white of the eye) looked slightly injected laterally. The bruising below the eye was in a roughly triangular distribution over an area approximately 2cm by 2cm by 2cm. Petechial bruising extended in a patch about 2cm above the right eye. There was therefore evidence of quite extensive petechial bruising to this area of the baby's face some three days later.
Right Leg
2. There was a linear brown bruise present on the anterior aspect of the right leg in the midline. This was approximately 3.6cm long with a distal linear extension of slightly lighter colouration. This was also brown in colouration and approximately 1.5cm long. Both parents told me that they thought this could be from his wooden cot bars or the metal frame of his changing mat in his travel cot.
Left Upper Arm
3. In the midline of the left upper arm there were three small petechial bruises in a cluster. These appeared to be small linear petechial bruises. Whilst I was examining C2, his mother commented that they resembled a pinch mark and earlier had looked 'like a love bite'. His father told me that this was from his car seat, which he then showed to me.
Neck
4. There was a small red mark just below the nape of the neck posteriorly in the midline, which his mother told me had been present since birth and seems likely to represent a birth mark.
I note that in Dr Papworth's clinic notes of the previous day, she had also documented petechial bruising to the right face and the marks on the left upper arm, but there was no documentation of any bruising to the right lower leg."
"The history as given is as documented in my original report. Whether or not dad's foot was 'in contact' with the baby gym (and the fact that I specifically asked whether his foot itself had hit C2), it is my opinion that the extent and distribution of the bruising to the face cannot be adequately explained. This does need to be seen in the context of the whole child, i.e. a non-mobile baby with evidence of bruising to three areas of the body."
"In summary therefore C2 is an 11 week old non-mobile baby who appears healthy and is developing normally. He shows evidence of bruising to three sites of the body, some of which is petechial (tiny blood vessels). Further investigations have shown a normal coagulation screen and a normal CT scan of the brain, with no evidence of retinal haemorrhages on fundoscopy. The coagulation screen is normal, i.e. no medical reason for him to bruise more easily, had been detected at this time on baseline investigation. Such medical conditions are rare, and in any case both inflicted injury and bleeding disorder may coexist and the diagnoses are not mutually exclusive. I do, however, understand that his sibling C1, who died at eight weeks of age with a sudden unexplained death in infancy, was said to have abnormal coagulation following his collapse, but that this returned to normal before he died. I understand that Dr Collins, Consultant Haematologist at University Hospital of Wales, was involved in his management, and I will therefore write to him to ask if he feels any further haematological investigations in C2 are warranted.
In my opinion, however, the pattern and distribution and extent of bruising around the right eye in C2 is not consistent with the explanation being offered of the incident with the baby gym, and although this may well have occurred, I do not think that this is the mechanism by which he sustained the bruising as seen. The fact that this baby has had three areas of documented bruising, including his face, is of concern. (Ref: Maguire, Archives of Disease in Childhood, 90(2) 196 – 'Those who don't cruise, rarely bruise"). It is generally accepted that a young non-mobile baby would not be able to bruise themselves by kicking against cot bars or changing equipment. The petechial bruising on the left upper arm was suggestive of a possible pinch mark. Overall therefore this presentation of unexplained bruising in a young non-mobile baby raises concerns regarding non-accidental injury."
Further down Dr Rawlinson says:
"I am also concerned at the history as given of C2 presenting at a few weeks of age to University Hospital of Wales with reported bleeding from the nose. This in itself is an extremely unusual finding in a young child and is in fact one of the ways in which imposed upper airway obstruction can present. (Ref: Child Protection Companion, Royal College Paediatrics and Child Health, April 2006). The hospital records of this presentation do need to be obtained as well as copies of the A and E attendance to the University Hospital of Wales with bruising around the eye in June 2006."
All the experts relevant to these bruises told me that bruising to a non-ambulant child of C2's age, i.e. two months as at 23 June 2006, was very rare. Dr Debelle told me that in his experience bruising was not a common experience and that studies had shown that bruising on a non-ambulant child was a rare event. Dr Sunderland agreed. Both accepted that one had to look not only at each bruise, but also at all the bruises together. Both told me that generally speaking they would expect the carers of a non-ambulant child to have seen how the bruising was caused.
It is crucial to note that the bruising to C2's leg was a linear mark which runs vertically up and down the front of his shin. Dr Sunderland told me that the rolling of C2 into the cot bars would not create enough momentum to cause such bruising. It was unlikely that a baby kicking out and his leg hitting the cot would cause such a bruise. Furthermore, it is an important point that the cot bars, as seen in the photographs, would have been at right angles to C2's legs if he had rolled into them. The cot bar at right angles to the linear bruise would be most unlikely to cause such a bruise. Furthermore, Dr Sunderland told me that, to him, it was some sort of pinch mark. Dr Rawlinson did not consider the parents' explanation to be satisfactory. She told me that cot-bound babies do not injure themselves. Mr Debelle said that the parents' explanation was plausible, but bruising in infants was rare and it should have been witnessed. Both parents in their evidence were completely unable to relate the bruise on C2's leg to any incident at all. The mother agreed in cross-examination by Miss Mifflin that C2 rolling into the cot bars was not an explanation of the bruising.
The mother described the marks on C2's left upper arm as looking puckered and like a "love bite". Dr Rawlinson agreed that is what it did look like. It looked like a pinch petechial bruising. The father suggested that the seatbelt straps of C2's seat could have caused that bruise. Dr Sunderland pointed out that the bruise was in the wrong place of the arm for any trapping by the seat strap. Dr Rawlinson told me that there was nothing to suggest any chafing because the mark on the arm had not been abraded or rubbed. Dr Debelle told me that if the seatbelt had in some way caused the bruising, a carer would have witnessed C2 being in pain at the time, but there is and was no clear and consistent explanation. Neither parent told me in their evidence of any incident in which C2 had been caused pain when in his car seat.
In my judgment, C2's injuries were not caused by either the strut of the baby gym and/or the father's foot. I am satisfied that the strut of the baby gym never came into contact with C2's right eye and/or right cheek. There is no incident other than the baby gym which is put forward by the parents to account for his injuries. The short point is, in my judgment, that the father has not told me the truth. Whilst I am prepared to accept that the father on the evening of 20 June did accidentally walk into the baby gym, I specifically find that it did not hit C2's face.
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