32 results about "Anatomical charts" patented technology

A method of surgical modeling is disclosed. A set of related two-dimensional (2D) anatomical images is displayed. A plurality of anatomical landmarks is identified on the set of related 2D anatomical images. A three-dimensional (3D) representation of at least one prosthesis is scaled to match a scale of the 2D anatomical images based at least in part on a relationship between the anatomical landmarks. 3D information from the at least one prosthesis along with information based on at least one of the plurality of anatomical landmarks is utilized to create procedure-based information. A system for surgical modeling is also disclosed. The system has a prosthesis knowledge-based information system, a patient anatomical-based information system, a user interface, and a controller. The controller has an anatomical landmark identifier, a prosthesis-to-anatomical-feature relator, and a procedure modeler.

A system for selecting an anatomical image for display includes a main image display displaying at least one anatomical image; a touch-screen display; a processing unit providing a selection of graphical directories of anatomical images; and a network configured to interface the main image display with the processing unit and configured to interface the touch-screen display with the processing unit. The system displays at least one of the selection of graphical directories of anatomical images on the touch-screen display and enables selecting at least one of the selection of graphical directories from the processor without removing the anatomical image from the main image display. The touch-screen display includes a button enabling interchangeable display of the anatomical image and the selection of graphical directories of anatomical images. The system enables selecting at least one anatomical image by touching the corresponding image in the directory displayed on the touch-screen display.

A diagnostic support system by which anatomical charts can be referred to easily by a simple operation with no need to store image data representing anatomical charts in each medical facility. This system includes a client terminal for transmitting image data, which represents a medical image obtained by imaging intended for diagnosis, and information on an examination utilizing the medical image to the database server, retransmitting the information on the examination to the database server when requesting anatomical chart data, and displaying an image including the anatomical chart based on the anatomical chart data received from the database server; and a database server for recording the received image data etc. in a first recording medium, and retrieving corresponding anatomical chart data from a second recording medium, in which plural kinds of anatomical chart data are recorded, to transmit the retrieved anatomical chart data to the client terminal.

A system for prioritizing patients for treatment, comprising: at least one hardware processor executing a code for: feeding anatomical images into a visual filter neural network for outputting a category indicative of a target body region depicted at a target sensor orientation and a rotation relative to a baseline, rejecting a sub-set of anatomical images classified into another category, rotating to the baseline images classified as rotated, identifying pixels for each image having outlier pixel intensity values denoting an injection of content, adjusting the outlier pixel intensity values to values computed as a function of non-outlier pixel intensity values, feeding each the remaining sub-set of images with adjusted outlier pixel intensity values into a classification neural network for detecting the visual finding type, generating instructions for creating a triage list for which the classification neural network detected the indication, wherein patients are selected for treatment based on the triage list.

An optical shape sensing system includes an attachment device (130) coupled at an anatomical position relative to a bone. An optical shape sensing fiber (102) is coupled to the attachment device and configured to identify a position and orientation of the attachment device. An optical shape sensing module (115) is configured to receive feedback from the optical shape sensing fiber and register the position and orientation of the attachment device relative to an anatomical map.

Provided in accordance with the present disclosure is a diagnostic and a therapeutic bronchoscopy system for localized delivery of medication within the lungs. Specifically, systems and methods are disclosed for creating a functional and anatomical map of the lungs, diagnosing a condition within the lungs, generating a treatment plan for a target site within the lungs, navigating to the target site, administering a treatment directly to the target site for immediate absorption within the target site, and assessing the efficacy of the treatment.

A medical imaging system is configured to link acquired images to markers or labels on an anatomical illustration based at least in part on spatial and anatomical data associated with the acquired images. The medical imaging system may also be configured to generate a diagnostic report including anatomical illustrations including the markers. The diagnostic report may allow a user to select a marker to view information associated with the acquired image and / or the acquired image. Multiple images can be associated with a marker, and / or multiple markers can be associated with an image. A collection of 2D and / or 3D anatomical illustrations can be generated, containing markers from multiple diagnostic reports, and dynamically updated by applying individual patient-specific anatomical models to reflect the relationship with organ, tissue, and vessel size, location, deformation and / or obstruction-related measurements and / or quantitative findings.

The present invention provides a method for making anatomical map stickers, comprising: constructing a human anatomical structure model gallery; from the human anatomical structure model gallery, collecting pictures of tissue structures involved in the target anatomical layer structure, the tissue structure includes bone structure, Muscle structure, blood vessel structure, and nerve structure; according to the collected pictures of the tissue structure involved in the target anatomical layer structure, various types of anatomical map stickers are made. The production method of the anatomy map can quickly and efficiently produce various types of high-quality anatomy map, which can meet different teaching needs, and the use of the map is simple and fast, which greatly improves the efficiency and quality of anatomy teaching. The present invention also provides a method for forming anatomical map stickers and human anatomical structure patterns for anatomy teaching. The forming method can carry out teaching combining two-dimensional and three-dimensional anatomical structures under ultrasonic imaging, giving medical learners more intuitive The visual experience greatly improves the teaching effect.

The invention belongs to the technical field of 3D printing medical manufacturing, and in particular relates to a method for manufacturing a 3D printing medical simulation human body model. The human anatomy map is compared and detected, and Zbrush software is used to optimize the structure and improve the design; 3D printing slicing software slices the model, and 3D printing equipment performs rapid prototyping for all tissue structure models; Structural strength and toughness; coloring and color protection of all printed parts; using 3D printing technology to make a human body shape mold and pouring transparent materials to make a simulated human body model. Use 3D printing technology to complete the rapid prototyping of complex structures of human muscles, bones, nerves, internal organs, veins, arteries and skin, and produce medical simulation human models.

Presented are concepts for displaying medical images. One such concept generates transformation data by mapping image data of a medical image to a location in an anatomical atlas and by determining atransfer function for transforming image data of the medical image for display. The transfer function is then associated with the location in the anatomical atlas. A medical image can then be displayed by identifying a transfer function associated with a selected location in the anatomical atlas. The identified transfer function is applied to image data of a medical image that is mapped to the selected location in the anatomical atlas so as to obtain transformed image data. A transformed version of the medical image is then displayed based on the transformed image data.

The invention provides a self-service ordering method, which needs to provide an ordering terminal and a server. The ordering terminal and the server perform two-way communication through the network. The method includes the following steps: setting configuration information and storing it in the server. The configuration information includes a base map , the plurality of click areas corresponding to the base map and the dish information associated with the click areas, the base map is an animal whole body anatomy diagram including a plurality of decomposed parts, and each decomposed part corresponds to a click area; the ordering terminal loads all the information from the server The above configuration information, draw the base map and the corresponding click area on the interface; when the user triggers the click area of ​​a decomposed part, the ordering terminal will load all the dish information associated with the click area into a predetermined display area, and the display area also provides The interactive area where the user adds and deletes dishes. After the user completes the selection of the desired dishes in the interactive area, an order is generated and sent to the server. The invention also provides a self-service ordering system to improve user experience.

A system for providing visual three dimensional assistance to a user during a medical procedure involving a soft organ. The system and method provide visual assistance to a user during a medical procedure involving a soft organ. The system and method utilize a processor for generating an image of the soft organ, a surgical instrument tracker for tracking a surgical instrument during the medical procedure, and a display in communication with the processor and the surgical instrument tracker for visually displaying in three dimensions, the image of the soft organ and the surgical instrument in relation to the soft organ.