18 results about "Breast imaging" patented technology

An adapter for securing a biopsy guidance module to a breast imaging system includes an adapter body which includes a first side and an opposite second side. An armature extends from the first side of the body. A latch mechanism is disposed proximate an end of the armature distal from the first side of the body. The latch mechanism includes an adapter latch and an actuator. The adapter latch is configured to engage an interface on the breast imaging system. The actuator is engaged with the adapter latch to move the adapter latch from an unlocked position to a locked position. In the locked position, the adapter latch is releasably engaged with the interface. A keeper is disposed on the second side of the body. The keeper is configured to receive a module latch from the biopsy guidance module.

Described herein are compact breast MRI systems having (i) an open, field-cycling magnet configured to produce and cycle between a first and second non-uniform B0 different from the first non-uniform B0, and (ii) a second component configured to produce a nonlinear spatial encoding gradient. Importantly, the open, field-cycling magnet and the spatial encoding gradients are customized to a specific imaging application. In particular, the second component contains one or several nonlinear DC gradient coils for spatial encoding. It also contains one or several a radiofrequency coils geometrically configured to have a non-planar configuration. Lastly, both the RF coils and DC encoding gradients are tailored specifically to the first non-uniform B0 magnetic field, the second non-uniform B0 magnetic field, or both. Artificial intelligence models trained to read imaging data can be incorporated as a component of the MRI systems. Also described are methods of using the disclosed breast MRI systems.

This invention relates to the field of medical image processing technology and discloses an image enhancement method for breast imaging diagnosis assistance. The method acquires a raw dataset of breast images, comprehensively covering key information across multiple dimensions, including overall image brightness, image zone texture variability, and image floor interference intensity. Then, a dynamic feature representation system is constructed based on this raw dataset, outputting targeted image optimization and control parameters. These control parameters are used to calculate a real-time image quality factor, and a preset baseline image quality norm and the actual image contour evolution rate are fused to accurately generate an image quality deviation coefficient. A bidirectional correction operation is performed based on the quality deviation coefficient, generating brightness modulation and texture enhancement amounts, thereby effectively enhancing the image. The processed image dataset is fed back to the dynamic feature representation system to iteratively optimize the image optimization and control parameters.

The embodiment of the application relates to the technical field of tomography, in particular to a breast imaging system, method and equipment based on a surface array source and a storage medium, the breast imaging system comprising a power module, a surface array source, a detection module, a data acquisition module and an image reconstruction module; the detection module comprises a detection platform, a detector and a connecting arm; the surface array source and the detection platform are located on two sides of an imaging object, the surface array source is a flat surface array source or an arc surface array source; when the flat surface array source is used, the flat surface array source comprises at least two plane ray source units; when the arc surface array source is used, only one surface array source is needed, and the surface array source semi-surrounds the imaging object. The breast imaging system based on the surface array source can realize virtual rotation projection of the imaging object, does not need a moving part, and can obtain more longitudinal projection information, thereby improving the longitudinal resolution of a reconstructed image.

Provided are a method for breast tumor breast imaging reporting and data system (BI-RADS) classification based on ultrasound and a computer device. The method includes: processing an ultrasound radio frequency (RF) signal of a breast tumor to obtain a lesion location RF signal; processing the lesion location RF signal based on a feature extraction model to obtain a feature pixel matrix; and identifying and classifying the feature pixel matrix based on a preset strategy to obtain a class of the breast tumor. The method for breast tumor BI-RADS classification based on ultrasound provided herein can identify the ultrasound RF signal standardly using more efficient deep learning and intelligent classification and identification algorithms, retain more effective information, and finally obtain an identification result by imitating a method of scoring by a clinician based on signal features during identification and constraining each scoring result using a joint loss function.

The application discloses a shock-absorbing and noise-reducing device for breast imaging CT, relates to the technical field of breast imaging, and comprises a mounting base, a CT mounting assembly is fixedly installed at the middle of the top of the mounting base, and the CT mounting assembly comprises a rotary support and a mounting frame. The shock-absorbing pad can prevent the vibration of the mounting frame and the breast imaging CT from being transmitted to the scanning bed through the metal support, thereby protecting the comfort of the patient, reducing the imaging noise and motion tail shadow of the breast imaging CT, and making the imaging picture clearer. The shock-absorbing pad can isolate the ground vibration, ensure the stability of the scanning bed body, avoid the scanning bed body from generating weak vibration due to the ground vibration, and further enable the scanning bed body to be more stable, so that the breast of the patient lying on the scanning bed body can be kept stable. The shock-absorbing pad can play a certain adjusting role in the case that the ground of the hospital is uneven, help the scanning bed body keep stable, and avoid the inclination or shaking caused by the ground problem.

This specification provides a breast imaging method, system, and storage medium. The method includes: controlling a breast scanning device to compress a target breast to obtain a pressure distribution map of the target breast, the pressure distribution map being acquired by a pressure sensor on the compressed target breast; determining lesion identification results and breast density of the target breast based on the pressure distribution map; determining target scanning parameters based on the lesion identification results and breast density; and controlling the breast scanning device to perform a target scan of the target breast based on the target scanning parameters.

This specification provides a breast imaging method, system, and storage medium. The method includes: acquiring a pre-exposure image and a pressure distribution map of a target breast, wherein the pre-exposure image is acquired by a breast scanning device pre-exposure the target breast under compression, and the pressure distribution map is acquired by a pressure sensor during the pre-exposure process; determining a target region in the pre-exposure image based on the pressure distribution map; determining target exposure parameters according to the target region and the pre-exposure image corresponding to the pre-exposure parameters; and controlling the breast scanning device to perform a target scan on the target breast based on the target exposure parameters to obtain a target exposure image.

A processor provided in a radiation image processing apparatus acquires two radiation images obtained by imaging breasts of the same subject, calculates, based on the radiation images, a pixel mammary gland ratio, which is a ratio of a mammary gland for each pixel in each of the radiation images, calculates, based on the pixel mammary gland ratio, a region mammary gland ratio in a predetermined region of each of the radiation images, evaluates extensibility of the mammary gland by comparing two region mammary gland ratios respectively calculated using the two radiation images, and performs control to display an evaluation result of the extensibility.

A method for breast imaging is provided. The method comprises controlling a breast scanning device to compress a target breast to a compressed state and utilizing a pressure sensor provided on the breast scanning device to acquire a pressure distribution map of the target breast in the compressed state; obtaining a reference identification result by identifying one or more target tissues of the target breast in the pressure distribution map, the one or more target tissues comprising at least one of a lesion tissue or a glandular tissue; determining, based on the reference identification result, one or more target scanning parameters; and controlling, based on the one or more target scanning parameters, the breast scanning device to perform a target scan on the target breast to acquire a target scanning image of the target breast.

To improve breast mammography imagery via use of a digital “slot scanning” imaging system that accommodates the changing thickness of the breast from the chest wall to the nipple by scanning the breast from the chest outward to the nipple or vice versa instead of the side-to-side methodology and using Automatic Exposure Control or AEC parameters optimized for the changing thickness and composition of the breast at each scan location and an improved breast compression device, wherein uniform breast compression mechanism includes a first breast plate and a second breast plate, wherein at least one of said first breast plate and said second breast plates includes an angle adjustment or tilt to account for the high variability in breast sizes and configurations while maintaining optimal immobilization with excellent patient comfort.

A method of imaging a breast of a patient with a breast imaging system includes supporting the breast on a breast support platform. A compressive force is applied to the breast with a breast immobilization element including a rigid substrate, a foam compressive element secured below the rigid substrate, and a force sensor. The foam compressive element is in contact with the breast during application of the compressive force. A force signal is detected at the force sensor based on the applied compressive force. A compressed thickness of the breast proximate the force sensor is determined based at least in part on the detected force signal at the force sensor. An automatic exposure control is set based at least in part on the determined thickness of the breast proximate the force sensor.

A system and method using an inflatable jacket over the compression paddle of a mammography and / or tomosynthesis system to enhance imaging and improve patient comfort in x-ray breast imaging.

An x-ray breast imaging system includes a compression paddle including an anterior wall and a bottom wall. The anterior wall is configured to be positioned proximate to and facing a chest wall of a patient during imaging, and the bottom wall is configured to be positioned adjacent to a length of a top of a compressed breast. The bottom wall extends away from the chest wall of the patient, wherein the bottom wall includes a first portion and a second portion such that the second portion is between the anterior wall and the first portion. The first portion and the second portion are generally non-coplanar, wherein the compression paddle is movable only along a cranial-caudal axis. The x-ray breast imaging system further includes a non-rigid cover releasably fastened to the compression paddle, the non-rigid cover positioned between the compression paddle and the patient.

A method of imaging a breast of a patient with a breast imaging system includes supporting the breast on a breast support platform. A compressive force is applied to the breast with a breast immobilization element including a rigid substrate, a foam compressive element secured below the rigid substrate, and a force sensor. The foam compressive element is in contact with the breast during application of the compressive force. A force signal is detected at the force sensor based on the applied compressive force. A compressed thickness of the breast proximate the force sensor is determined based at least in part on the detected force signal at the force sensor. An automatic exposure control is set based at least in part on the determined thickness of the breast proximate the force sensor.

A tube arm assembly is rotatably connected to the floor mounted gantry of a breast imaging system. A support arm connected to the tube arm assembly can be independently rotated and positioned in a first angle, second angle, and a level position. A compression arm is configured to support a breast compression paddle and is linearly positionable on the support arm. Display screens and a sensor are disposed on an upper surface of the compression arm. Based on a signal received from the sensor, a controller is configured to change the read-ready orientation of each arm display.

A bracket body releasably secures a compression element to the compression arm of a breast imaging system. A pair of parallel lateral arms extends from a rigid frame which extends from the bracket. A span connects the ends of the lateral arms opposite the bracket and a flexible membrane extends from the span towards the bracket body.

This specification provides a breast imaging method, system, and storage medium. The method includes: controlling a breast scanning device to compress a target breast and acquiring a dynamic pressure distribution map of the target breast collected by a pressure sensor during the compression process; controlling the breast scanning device to perform a target scan on the compressed target breast to acquire a target exposure image; determining lesion information related to the target breast based on the dynamic pressure distribution map, the lesion information including at least the lesion location information and lesion benign / malignant information; and processing the target exposure image based on the lesion information to generate a processed target exposure image.