Langhui

General Medical Imaging Annotation Dataset

General reference data sets for medical images covering CT, X-Ray, ultrasound, MRI four mosaics, 108,500 cases, supporting training in the detection, partitioning and classification of health stoves.

Dataset Overview

Dataset NameGeneral Medical Imaging Annotation Dataset
Total Data Volume108,500 cases (including CT/X-Ray/ ultrasound/MRI polymodular)
Model distributionCT 42 000 / X-Ray 35 000 / Ultrasound 18,000 / MRI 13 500
Annotation TypeDisease detection frames, semantic partitions, classification labels, key points
Covered Body PartsBreast, abdominal, bone, breast, thyroid, skull.
Data SourceMulti-cooperative medical institutions + enhanced public data sets (authorized compliance)
Format OutputDICOM / NIfTI / PNG / COCO JSON / YOLO TXT
Quality Control StandardsDouble physician label + Director clearance, classification accuracy & g; 98%, split Dice & g; 0.88

Detailed Description of Data Dimensions

Field NameData TypeValue Range / Description
case_idString(32)ID for de-identification cases
modalityEnumCT | XRAY | US | MRI
body_partEnumCHEST | ABDOMEN | BONE | BREAST | THYROID | BRAIN
finding_labelEnum(Multi)NORMAL & NODULE
bboxArray[4][x_center, y_center, width, high]
segmentationArrayCOCO format polygon or RLE encoding
classificationObject{primary, secondary, confidence}
image_sizeArray[2][height_px, width_px]
slice_indexIntegerSlices numbering in CT/MRI sequence
acquisition_dateDateDate of inspection (years only)
device_manufacturerStringGE / Siemens / Philips / Canon / Mindray

De-identified JSON Data Sample

[ Chuckles ] Other Organiser "case id": "MIG-C0001234", "modality": "CT", "body part": "CHEST," "finding label": ["NODULE", "CALCIFICATION"], "bbox": [0.432, 0.387, 0.085, 0.092], "security": [390, 0.341], [0.475, 0.341], [0.475, 0.433], [0.390, 0.433], "Classification": {"primary": "Presistence" , "secondary": "Presistence": 0.96, "image size": [512, 512], "slice index": 24, "Acquisition date": "2024-03", "Device manufacturer": "Siemens" {\cHFFFFFF}{\cH00FFFF} Other Organiser "case id": "MIG-X0005678", "Modality": "Xray," "body part": "CHEST," "finding label": "bbox": [350, 0.620, 0.600, 0.150], "security": [(0.050, 0.545], [0,950, 0.545], [0,950, 0.695], [0.050, 0.695], "Classification": {"primary" : "Culture" , "secondary" : "Message" :0.9. "image size": [2048, 2048], "Slice index": "acquisition date": "2024-06", "Device manufacturer": "GE" {\cHFFFFFF}{\cH00FFFF} Other Organiser "case id": "MIG-U0009012", "modality": "US", "body part": "THYROID," "finding label": "bbox": [0.381, 0.256, 0.238, 0.167], "security": [[0.262, 0.172], [0.500, 0.172], [0.500, 0.339], [0.262, 0.339], "classification": {"primary": "hysteria", "secondary": "TI-RADS 4a", "conversion": 0.88}, "image size": [960, 720], "Slice index": "acquisition date": "2024-01", "Device manufacturer": "Philips" {\cHFFFFFF}{\cH00FFFF} Other Organiser "case id": "MIG-M0003456", "modality": "MRI," "body part": "Brain," "finding label": ["MASS" ], "bbox": [0.287, 0.312, 0.156, 0.141], "security": [0.209, 0.241], [0.365, 0.241], [0.365, 0.382], [0.209, 0.382], "classification": "primary": "secondary": full, "conversion": 0.93}, "image size": [384,384], "slace index": 12, "acquisition date": "2024-08", "Device manufacturer": "Siemens" {\cHFFFFFF}{\cH00FFFF} Other Organiser "case id": "MIG-C0007890", "modality": "CT", "body part": "ABDOMEN", "finding label": ["NORMAL"], "bbox": "Segmentation": "classification": "primary": "normal": full, "confidence": 0.99, "image size": [512, 512], "slice index": 40, "acquisition date": "2024-04", "Device manufacturer": "Canon" ♪ I'm sorry ♪

Annotation Specifications and Quality Control

Annotation Workflow

Use the "pre-mark + manual correction + cross-check" model. First, the AI model (YOLO/MedSAM) generates the initial label, then it is independently revised by two physicians, and finally the director decides the difference. The process is 60% more efficient than a purely manual label, while maintaining a high accuracy rate.

Quality control indicators

98.7%

ClassificationAccuracy

0.89

Split Dice

0.91

Test mAP@0.5

<2.1%

AI Training Use Cases

Universal screening of the stoves

Applicable model: YOLOv8/v9/DTR/RT-DRR/DINO. Cross-modular, cross-sectional generic model of the test of the stove, which can serve as the base model base for the medical image AI.

Applying model: TotalSegmentator / nnU-Net / SAM-Med2D. Trained generic partition models covering multiple organs in their entire body, supporting CT/MRI dual-modular patterns.

Auto-report chest X-ray.

Applying model: R2Gen / X-REM / CheXagent (View Encoder + LLM decoder). Auto-generated model based on graphic matching of data.

Regionalization and Luxability

Applying model: DomainBed / DANN / SWAD. Training in non-sensitive domain-wide model for collecting equipment using multi-centre, multi-equipment data.

Get This Dataset

The generic medical image data set is flexiblely authorized by the mosaic/part to support the customization of the subset.

137-5502-0164 Online Consultation

Commercial Application Value

A.I.M. image SaaS

A cloud-based AI-assisted viewing service is provided to regional video centres and medical examination institutions, covering high frequency (HF) scenes such as pulmonary knots, fractures, thyroid glands.

Imagination of medical devices

Real-time AI aids embedded in the CT/DR/ ultrasound device end, NMPA AI functional registration obtained by the Auxiliary Medical Plant.

Basic model pre-training

The first is the large-scale multi-modular pre-training language for medical image base models (e.g. RadImageNet, BioMedCLIP).