Hip imaging discs and portal downloads are rarely a single sequence — a pelvis overview, a stack of dedicated hip planes, and sometimes a set of radiographs all ride together. This viewer separates every one of those series and displays them in your browser without installing anything. Nothing leaves your machine while you scroll, window, or measure; only the frames you choose to send for AI reading ever travel anywhere.
Load Your Hip or Pelvis StudyA hospital disc or patient-portal download for a hip complaint is almost never one folder of images — it is a DICOMDIR index pointing at several folders, each holding hundreds of single-frame objects. MRI exams typically start with a large field-of-view coronal series that covers both hips and the pelvis together, so the reader can compare sides before narrowing down. That is followed by small field-of-view coronal and sagittal series focused tightly on the symptomatic hip, then an axial oblique stack angled along the femoral neck rather than the body's true axial plane. Many labral protocols add a radial series on top of that — a stack of thin slices rotated in steps around the neck axis like spokes on a wheel, so the labrum is cut perpendicular to its rim at every clock position. Plain-film studies contribute their own separate objects: a standing AP pelvis, a frog-leg lateral, and often a Dunn view for impingement assessment, each stored as its own single-frame image rather than a stack. CT studies add thin isotropic axial slices plus vendor-generated coronal and sagittal reformats saved as their own series alongside the source axials.
Every object in a hip study carries header fields worth checking before you trust what you are looking at. The series description names the acquisition — this is how you tell a radial labral stack from a standard coronal or sagittal plane, since the description usually spells out “radial” or names the neck axis directly. The image orientation values record the direction cosines of each slice, which is how the viewer — and you — can confirm that an oblique or radial series really is angled the way its name claims rather than lying flat on a standard plane. Slice thickness and spacing between slices tell you how finely the anatomy was sampled, which matters when a small labral tear sits between two thick slices. Body part and laterality fields identify hip versus pelvis and left versus right, but a pelvis-overview series that intentionally covers both hips often leaves laterality blank by design — that is expected, not a data error. The study date confirms you are reviewing the exam your clinician referenced, and the window center and width the reporting radiologist saved are a useful starting point before you adjust contrast yourself.
Hip Conditions on DICOMDrop a hospital CD export, USB folder, DICOM ZIP archive, or individual .dcm files. Series are organised automatically by modality, date, and description.
Navigate slices, adjust windowing presets, zoom and pan, and measure distances in millimetres. When the series has sufficient volume data, multi-planar reconstruction (MPR) and 3D rendering are available.
Four independent AI models analyze rendered images with modality-aware prompts. Claude synthesizes a structured report with findings, severity grading, and a downloadable PDF.
Once the files are in, the viewer reads every header, groups frames by series instance, and sorts each group into slice order using the position and orientation fields rather than filename order, which hospital exports rarely preserve reliably. You can then scroll through the pelvis overview to orient yourself, jump to the dedicated small field-of-view series for detail, and step through the radial stack one angular slice at a time. Windowing presets switch between a soft-tissue look for labrum and cartilage and a bone look for cortical detail on the same frame. Built-in measurement tools let you mark the alpha angle on an oblique axial slice or trace joint space width on the standing radiograph. When the CT series has isotropic thin slices, the viewer can build multiplanar reconstructions and an interactive 3D volume directly from that data, no separate reformat needed. Comparing the pelvis overview against the dedicated small field-of-view series side by side also makes it easy to see whether a finding on the symptomatic hip has a mirror-image counterpart on the other side, which is often the first thing a clinician asks about.
Hospitals bundle a viewer executable on the disc so a referring clinic can open the study without installing anything themselves, but that executable is almost always compiled for Windows and frequently fails outright on a Mac or a locked-down hospital workstation. The DICOM data underneath is not tied to that program at all — it is a portable, vendor-neutral format that any compliant reader can parse, including a browser. Ignoring the bundled .exe and pointing this viewer at the DICOMDIR folder directly sidesteps that Windows dependency entirely, and it avoids installing an unfamiliar executable from a hospital disc on a personal computer in the first place.
Before drawing any conclusion from a hip study, check the laterality and body-part header on the dedicated small field-of-view series — not the pelvis overview, which may legitimately show both sides — and confirm the study date matches the exam your clinician is discussing. Patients who have had imaging on both hips over several years can easily end up comparing the wrong date if the file browser only shows a generic folder name. When a study includes both an MRI and a set of radiographs taken months apart, checking each series' own study date separately avoids assuming they were acquired together.
A hip or pelvis CT with thin, evenly spaced axial slices is a strong candidate for volume reconstruction. The viewer can generate coronal, sagittal, and axial planes at once from a single axial stack and render an interactive 3D model of the pelvis and proximal femur, which makes fracture extent and acetabular coverage far easier to judge than scrolling through axials alone.
Read the 3D DICOM viewer and MPR guideAI review can translate radiology terminology and point out what the rendered frames appear to show, but it does not replace a licensed radiologist's interpretation. Treat it as preparation for your appointment — particularly useful when a hip report mentions labral pathology, impingement morphology, avascular necrosis, or a fracture line you want explained before you ask your surgeon about it directly.
Read the AI imaging explanation guideLoad a hospital CD export, USB drive folder, DICOM ZIP archive, or individual .dcm files directly in your browser. No conversion or special software needed.
Raw DICOM files stay on your device. All parsing and rendering happens in your browser using WebAssembly and the Canvas API. Nothing is uploaded for viewing.
Works in any modern browser — Chrome, Firefox, Safari, Edge. No plugins, no Java, no desktop software to download or update.
Four independent AI models analyze rendered images using modality-aware prompts for MRI, X-ray, and CT. Claude synthesizes a consensus report with confidence levels.
Multi-planar reconstruction (MPR) and 3D volume rendering are available when the series contains sufficient contiguous slices — common in CT and high-resolution MRI.
Generate a professional report with structured findings, severity grading, model agreement, and clinical recommendations — ready to share with your physician.
DICOM (.dcm) — individual image files from any scanner
ZIP archives — containing multiple DICOM series or views
DICOM folders — dropped directly from a CD, USB, or local disk
Hospital CD and USB exports — standard DICOMDIR layout supported
All standard transfer syntaxes — Implicit VR Little Endian, Explicit VR Little Endian, Explicit VR Big Endian, JPEG Lossless (1.2.840.10008.1.2.4.70)
All major modalities — MRI, X-ray (CR/DR), CT, CBCT, ultrasound, mammography
8-bit, 12-bit, and 16-bit pixel depth
MONOCHROME1 and MONOCHROME2 photometric interpretation
Scanner compatibility — Siemens, GE, Philips, Canon, Hitachi, and all other DICOM-compliant devices
Drag the whole disc folder, including the DICOMDIR index and every subfolder beneath it, or zip the entire structure first. The viewer reads the DICOMDIR to map each object to its series and reassembles the pelvis overview, the dedicated hip planes, and any radiographs correctly even when the folder names themselves are meaningless.
Check the series description header field first — radial acquisitions are almost always labeled with a term like “radial” or a reference to the femoral neck axis. If the description is ambiguous, the image orientation values will show each slice rotated at a different angle around a shared axis, unlike a standard plane where every slice shares the same orientation.
A large field-of-view pelvis series is acquired deliberately to let a radiologist compare both hip joints side by side before the protocol moves on to small field-of-view series focused only on the symptomatic hip. Because that overview series covers both sides on purpose, its laterality header field is frequently left blank rather than set to left or right.
Yes. Each radiograph is stored as its own single-frame DICOM object, and MRI or CT slices are grouped into their own series stacks. The viewer lists every series from the study side by side in the sidebar, so you can switch between a radiograph and a cross-sectional series without leaving the page.
Yes. Header parsing, slice sorting, windowing, and rendering all run locally in your browser through JavaScript and WebAssembly, and the raw DICOM objects never leave your device. Only the rendered image frames you explicitly submit are sent for AI-assisted reading.
Yes, on the oblique axial or radial slice that best shows the femoral head-neck junction, the built-in angle tool lets you mark the reference lines needed to read the alpha angle directly on the image.
MPR and 3D reconstruction need contiguous, evenly spaced slices, which a thin-slice hip or pelvis CT axial series normally provides. Vendor-generated reformat series that came bundled with the study display as ordinary slice stacks rather than being rebuilt into a new volume.
Viewing is free with no series limit or account requirement. AI-assisted reading of the frames you choose to submit is available for $10 per analysis session.
On Analyze My Hip, the viewer helps you inspect hip scans and connect image findings with common pain, impingement, arthritis, and labral injury questions.
Review hip labral tears, femoroacetabular impingement, arthritis, avascular necrosis, bursitis, stress fracture, gluteal tendon findings, MRI soft-tissue detail, and CT or X-ray bone detail.
Use the hip condition pages to understand whether a report is describing X-ray joint space narrowing, CT fracture or impingement morphology, MRI labrum and tendon findings, or mixed hip pain patterns.