2D vs 3D Ultrasound (2017-Present)
3D versus 2D neonatal cranial ultrasound
Joao Alves Rosa, Rachel Roberts, Adam Smith-Collins, Sian
Curtis, Savvas Andronikou, David Grier
|
A standard 2D coronal image of the frontal lobe, showing the
'bull horns'. |
|
A 3D coronal image of the frontal lobe taken during the study
for comparison. |
|
A standard 2D sagittal image of the left temporal lobe. |
Patients on the neonatal intensive care unit (NICU) often
require imaging of their brain to look for intracranial haemorrhage
or other complications.
These are commonly seen in pre-term babies, or term infants with
birth asphyxia, seizures, or congenital infections.
Ultrasound is the imaging modality of choice as it does not use
ionising radiation, and is easily performed at the bedside.
2-dimensional (2D) ultrasound requires significant training to
obtain adequate quality images in the standard planes.
3-dimensional (3D) ultrasound images are easier and quicker to
acquire, which may be of benefit to patients that are sick and
immobilised by medical paraphernalia such as ventilators. These
images can be reconstructed using computer software into the
2-dimensional images in the standard planes.
If the image quality of these reconstructions is equal to a
2D-acquired scan for diagnostic purposes, then these could be
performed at remote sites. The resultant images could then be sent
on to tertiary referral centres and interpreted by specialists
without the need for the infant to travel hundreds of miles in a
sub-optimal clinical condition.
To find out whether this is possible we first want to carry out
a proof of concept study (20 patients) to ensure that the 3D scans
can be reconstructed to provide a 2D image, without loss of
quality, or loss of features over that seen in the 2D scan.
We will also validate the anecdotal evidence that the 3D scan can
be performed more quickly and easily than the 2D scan.
The aim of the study is to compare the presence and quality of
key anatomical landmarks in standard images of the brain in the
neonatal population produced by 2D and 2D cross-sectional
reconstructions from a 3D data set.
The primary endpoint of this study is the adequacy of
reconstructed 3D data to display at least 90% of the key anatomical
landmarks with similar quality to the 2D acquires standard
images.