The document contains no actual radiology report content—only a placeholder instruction where a report was expected.
Severity reflects the AI reading's own wording — it is not a diagnosis, and not your radiologist's opinion.
New or worsening symptoms? Contact your doctor promptly, whatever this summary says.
The disc is markedly reduced in T2 signal (dark) and narrowed in height compared with the levels above, and its posterior margin bulges toward the thecal sac, indenting the anterior cerebrospinal fluid space at this level. This is the most significant finding of this series because it combines signal loss, height loss and effect on the adjacent thecal sac, outranking the signal changes alone seen at higher levels.
On the midline slices the pituitary fossa and the tissue just above it show heterogeneous signal with a rounded component, abutting the floor of the third ventricle; this is the most significant finding of this series because an enhancing/altered mass in this location exerts effect on adjacent midline structures, outranking the simple fluid-space prominence elsewhere.
The vertebral endplates at the mid-lumbar levels show mild irregularity with small indentations into the adjacent vertebral bodies.
The disc shows reduced T2 signal relative to the upper lumbar discs and slight posterior bulging of its margin, contacting the anterior thecal sac; the signal and height loss are less marked than at L5–S1.
The bodies of the lateral ventricles and the midline third ventricle are visible as symmetric dark (CSF-suppressed) spaces that appear mildly prominent relative to the surrounding white matter on the mid-brain coronal slices, with the adjacent sulci also appearing widened; no focal mass effect or displacement of midline structures is seen.
On the uppermost slice the brain cross-section is small and the cortical ribbon and underlying white matter show generally symmetric signal between the two hemispheres, with the interhemispheric fissure central; a tiny punctate bright focus sits near the midline centrally, of uncertain significance against the surrounding speckle.
The thecal sac and cord are seen as a central low-to-intermediate signal band; at the level of the kyphotic apex the anterior canal margin follows the forward-displaced vertebral contour, indenting the ventral border of the sac.
The posterior disc margin bulges slightly toward the thecal sac and reduces the ventral CSF layer in front of the cord at this level compared with the levels above and below, where the ventral CSF remains a continuous bright band. This is the most significant finding of this series because it affects the fluid space immediately in front of the cord, outranking the uniformly rounded, well-marginated structures elsewhere.
At the lower cervical / upper thoracic transition the vertebral column shows a focal kyphotic angulation, with the normal gentle curve replaced by a sharper posterior convex bend. This is the most significant alignment deviation of this series because it alters the axis along which the cord and canal run, outranking the uniformly bright well-defined soft-tissue finding noted posteriorly. The underlying vertebral body heights and marrow signal appear preserved on the midline slices.
The sulci between the cortical gyri appear widened with prominent dark cerebrospinal-fluid-containing spaces, and the overlying cortical ribbon appears thin relative to the bright underlying white matter.
One vertebral body at the apex of the thoracolumbar junction is reduced in anterior height and wedge-shaped, producing a focal angular kyphosis; its anterior cortex is displaced forward relative to the adjacent bodies, narrowing the smooth curve of the anterior vertebral line. This loss of body height and the resulting angulation is the most significant finding of this series because it alters alignment and affects the neighbouring bodies above and below, outranking the disc and marrow signal changes.
Disc spaces adjacent to the wedged body are reduced in height compared with the better-preserved lower lumbar disc spaces, with loss of the normal rectangular disc profile.
On these diffusion-weighted slices, no focal region of abnormal bright signal or asymmetry was seen in: the cerebellar hemispheres and vermis, the pons and midbrain, the medial temporal lobes, the basal ganglia and thalami, the periventricular and deep white matter, the lateral ventricles (which appear symmetric and of normal caliber), and the cortical grey matter of the frontal, parietal, temporal and occipital lobes. The orbital globes and extracranial soft tissues shown at the lower slices are symmetric.
Linear and tubular high signal along the midline at the vertex and over the convexities represents expected post-contrast enhancement of venous structures, not a parenchymal lesion; it follows the expected course of the superior sagittal sinus and cortical veins.
The cerebellar hemispheres and brainstem (pons and midbrain) are visible on the lower brain slices with preserved outline and no focal signal deviation evident.
Both kidneys are partly included at the lateral margins of several slices, showing the expected intermediate cortical signal with internal collecting-system structures; no focal signal change is evident within the portions shown.
Soft-tissue signal partially filling the ethmoid air cells and sphenoid region at the skull-base level, with mucosal-type thickening along the nasal passages; this material differs from the expected air signal of a clear sinus but does not displace adjacent bony walls.
Bulky, uniformly high-signal (fatty) soft tissue expands the dorsal subcutaneous layer over the lower cervical and upper thoracic spinous processes, forming a rounded prominence that projects well beyond the adjacent neck and upper back contour. It overlies but does not appear to breach the posterior spinal elements. This is the most conspicuous finding of the series; it is ranked below any bony or cord abnormality but exceeds all other soft-tissue changes shown.
A large, well-circumscribed, round structure with uniform high T2 signal sits immediately anterior to the vertebral body, slightly to the patient's left of midline. It is accompanied on several slices by a smaller, similarly bright rounded structure just cephalad/anterior to it. The larger structure abuts the anterior cortex of the vertebral body and contacts it without eroding it on these views. This is the most significant finding of the series because of its size and its direct contact with the vertebral body, outranking the uniform-appearing cord and bony structures.
On the mid and lower slices a second smaller round bright structure lies just anterior/superior to the larger one, slightly to the patient's left, with a smooth margin and separate outline.
A smoothly marginated, rounded uniformly T2-hyperintense structure sits along the floor/wall of the left maxillary sinus, visible on the lowest few slices. It abuts the sinus wall but does not distort the adjacent nasal structures or bone outline. This is the most conspicuous deviation on the series, though it lies outside the brain and exerts no effect on intracranial structures.
Several mid-cervical vertebral bodies show heterogeneous marrow signal with scattered brighter foci on these fat-saturated post-contrast images, differing from the more uniform signal of the lower thoracic bodies on the same slices.
A rounded focus of markedly low signal with an irregular darker rim sits in the central part of the parenchyma, standing out against the brighter adjacent tissue; this is the most conspicuous focal signal change on this slice, outranking the linear surface findings because it is a discrete rounded region of lost signal rather than a thin surface line.
A thin band of brighter signal outlines the outer margin of the head anteriorly and inferiorly, representing the soft-tissue/scalp layer, separated from the deeper parenchyma by a darker interface.
A bulky heterogeneously enhancing soft-tissue mass lies anterior and to one side of the vertebral column, extending over several segments and filling the space ventral to the bodies; it abuts the anterior vertebral cortices.
AI-assisted scan reading — not a clinical report
Issued: 2026-10-23
This document was generated by artificial intelligence from the scan images. It is an explanatory aid, NOT a diagnosis and NOT a substitute for a radiologist report. Always discuss it with your doctor.
Whole-exam read: 14 of 18 series, 420 representative slices in total.
This was a brain MRI that also captured parts of the spine, neck, and chest, with some sequences taken before and after a contrast dye injection. Several different computer readings looked at the images and did not always agree, so many points below are described as what one reading saw rather than as settled facts. Importantly, this is an incomplete assessment: a number of reconstructed image sets were not part of this reading, so nothing here rules anything in or out, and some findings — including a wedge-shaped (collapsed) vertebra and nearby soft-tissue changes — would be worth discussing with your doctor fairly soon.
These images show a mix of findings in the spine, brain, sinuses, and chest, and the readings often disagreed, so most points are not settled and need a human radiologist to review. In general terms, darker disc signal with bulging (seen at L4–L5 and L5–S1) is a common feature that can relate to the discs flattening and pressing lightly on the fluid space around the nerves. A vertebra that is wedge-shaped and reduced in height, together with uneven marrow signal and nearby soft-tissue that takes up contrast, can have several different causes and is the kind of combination that is worth having a doctor review without a long delay — not because any specific diagnosis is being made here, but because a human specialist should interpret it. The prominent fluid spaces and widened surface grooves of the brain can simply reflect normal variation or changes that occur over time, but a single reading also raised a possible change in the pituitary region, so these too should be looked at by a radiologist. The bright rounded structures in the chest and in the left maxillary sinus often correspond to fluid-filled or similar well-defined structures, but their nature is not determined by this reading. Because the readings conflicted and parts of the study were not reviewed, nothing here should be taken as ruling anything in or out.
Produced by
Read Your Scan
Automatically generated document — no physician signature.