Method and system for visualization of heart tissue at risk
Exemplified methods and systems facilitate presentation of data derived from measurements of the heart in a non-invasive procedure (e.g., via phase space tomography analysis). In particular, the exemplified methods and systems facilitate presentation of such measurements in a graphical user interface, or “GUI” (e.g., associated with a healthcare provider web portal to be used by physicians, researchers, or patients, and etc.) and/or in a report for diagnosis of heart pathologies and disease. The presentation facilitates a unified and intuitive visualization that includes three-dimensional visualizations and two-dimensional visualizations that are concurrently presented within a single interactive interface and/or report.
1 . A computer-implemented method for formatting a display to present summary information and visualizations of myocardial tissue of a patient that identifies myocardium at risk, the method comprising:
generating, by one or more processors using one or more predictors, a data set that identifies myocardium at risk of having coronary disease, the data set comprising a plurality of parameters each associated with a corresponding heart segment of a plurality of heart segments of a heart and having a coronary risk value, wherein each of the plurality of heart segments correspond to an anatomical structure of the heart, wherein each of the one or more predictors was trained using machine learning to predict coronary risk values for heart segments of the plurality of heart segments;
generating, by the one or more processors, for a graphical user interface, a plurality of graphical visualizations including a first graphical visualization, from the data set that identifies myocardium at risk of having coronary disease,
wherein the first graphical visualization comprises:
a first graphical element corresponding to a first three-dimensional visualization of myocardial tissue, wherein the first three-dimensional visualization of myocardial tissue comprises a plurality of surface areas each associated with a heart segment of the plurality of heart segments;
one or more second graphical elements that are overlaid over, or that replaces, a surface area of the plurality of surfaces areas of the first graphical element, the surface area corresponding to a given heart segment having a parameter with a coronary risk value that exceeds a threshold that identifies myocardium at risk of having coronary disease; and
a third graphical element corresponding to a second three-dimensional visualization of myocardial tissue, wherein the first three-dimensional visualization is rendered in accordance with a first viewing perspective, and wherein the second three-dimensional visualization is rendered in accordance with a second viewing perspective, wherein the first viewing perspective is different from the second viewing perspective; and
rendering, by the one or more processors, the plurality of graphical visualizations on a display of a computing device.
2 . The method of claim 1 , wherein the plurality of graphical visualizations further comprise a second graphical visualization, wherein the second graphical visualization comprises:
a fourth graphical element corresponding to a first two-dimensional visualization of the plurality of heart segments, the first two-dimensional visualization comprising a plurality of surfaces each corresponding to a segment of the plurality of heart segments, and
one or more fifth graphical elements that are overlaid over, or that replaces, a surface of the plurality of surfaces of the fourth graphical element, the surface corresponding to the given heart segment having the parameter that identifies the myocardium at risk.
3 . The method of claim 2 , wherein the first two-dimensional visualization corresponds to a coronary map comprises a plurality of elongated graphical elements collectively forming a coronary tree, wherein each of the plurality of elongated graphical elements corresponds to a heart segment of the plurality of heart segments.
4 . The method of claim 2 , wherein the first two-dimensional visualization corresponds to a visualization of a 17-segment map of the myocardial tissue comprising:
a center graphical element;
a first set of graphical elements corresponding to four distinct segments each having a radial area that extends between a first radius value and a second radius value and that collectively surrounds the center graphical element;
a second set of graphical elements corresponding to six distinct segments each having a radial area that extends between the second radius value and a third radius value and that collectively surrounds the first set of graphical elements; and
a third set of graphical elements corresponding to six distinct segments each having a radial area that extends between the third radius value and a fourth radius value and that collectively surrounds the second set of graphical elements.
5 . The method of claim 4 , wherein the visualization of the 17-segment map comprise one or more fourth set of graphical elements each corresponding to a major artery of the heart, wherein the one or more fourth set of graphical elements are each displayed as a direct projection of the major artery onto a standard heart, each of the one or more fourth set of graphical elements connects portions of the first set of graphical elements, portions of the second set of graphical elements, and/or portions of the third set of graphical elements in a serpentine manner.
6 . The method of claim 2 ,
wherein the first two-dimensional visualization comprises a coronary map comprising a plurality of elongated graphical elements collectively forming a coronary tree, wherein each of the plurality of elongated graphical elements corresponds to a heart segment of the plurality of heart segments; and
wherein the second graphical visualization further comprises a second two-dimensional visualization of a 17-segment map of the myocardial tissue, the second two-dimensional visualization comprising a plurality of surfaces each corresponding to a segment of the plurality of heart segments, and
wherein the second two-dimensional visualization comprises:
a center graphical element;
a first set of graphical elements corresponding to four distinct segments each having a radial area that extends between a first radius value and a second radius value and that collectively surrounds the center graphical element;
a second set of graphical elements corresponding to six distinct segments each having a radial area that extends between the second radius value and a third radius value and that collectively surrounds the first set of graphical elements; and
a third set of graphical elements corresponding to six distinct each having a radial area that extends between the third radius value and a fourth radius value and that collectively surrounds the second set of graphical elements.
7 . The method of claim 1 , wherein the one or more second graphical elements are selected from a group consisting of a coloration, a surface texture, and an animation.
8 . The method of claim 1 , wherein the plurality of parameters comprise a predictor of significant coronary disease being present.
9 . The method of claim 1 , wherein the plurality of parameters comprise a predictor of myocardium of a portion of heart having a pre-defined risk of coronary heart disease.
10 . The method of claim 1 , wherein the data set is collected and analyzed via phase space tomography analysis.
11 . The method of claim 1 , wherein the data set is collected from an angiographic study.
12 . The method of claim 1 , wherein the first three-dimensional visualization of myocardial tissue comprises a standardized rendered 3D model derived from one or more medical scans.
13 . The method of claim 1 , wherein the first three-dimensional visualization of myocardial tissue comprises a customized rendered 3D model derived from one or more medical scans associated with the patient.
14 . The method of claim 1 , wherein the first three-dimensional visualization of myocardial tissue comprises an animated rendered 3D model of the heart.
15 . The method of claim 1 , wherein the first three-dimensional visualization graphically presents a point of interest in the heart tissue based on the data set.
16 . A system comprising:
a processor; and
a memory having instructions stored thereon, wherein execution of the instructions, cause the processor to:
generate, using one or more predictors, a data set that identifies myocardium at risk of having coronary disease, the data set comprising a plurality of parameters each associated with a corresponding heart segment of a plurality of heart segments of a heart and having a coronary risk value, wherein each of the plurality of heart segments correspond to an anatomical structure of the heart, wherein each of the one or more predictors was trained using machine learning to predict coronary risk values for heart segments of the plurality of heart segments;
generate for a graphical user interface, a plurality of graphical visualizations including a first graphical visualization, from the data set that identifies myocardium at risk of having coronary disease,
wherein the first graphical visualization comprises:
a first graphical element corresponding to a first three-dimensional visualization of myocardial tissue, wherein the first three-dimensional visualization of myocardial tissue comprises a plurality of surface areas each associated with a heart segment of the plurality of heart segments;
one or more second graphical elements that are overlaid over, or that replaces, a surface area of the plurality of surfaces areas of the first graphical element, the surface area corresponding to a given heart segment having a parameter with a coronary risk value that exceeds a threshold that identifies myocardium at risk of having coronary disease; and
a third graphical element corresponding to a second three-dimensional visualization of myocardial tissue, wherein the first three-dimensional visualization is rendered in accordance with a first viewing perspective, and wherein the second three-dimensional visualization is rendered in accordance with a second viewing perspective, wherein the first viewing perspective is different from the second viewing perspective; and
render the plurality of graphical visualizations to be presented on a display.
17 . A non-transitory computer-readable medium having computer-executable instructions stored thereon that when executed by a processor of a system cause the system to:
generate, using one or more predictors, a data set that identifies myocardium at risk of having coronary disease, the data set comprising a plurality of parameters each associated with a corresponding heart segment of a plurality of heart segments of a heart and having a coronary risk value, wherein each of the plurality of heart segments correspond to an anatomical structure of the heart, wherein each of the one or more predictors was trained using machine learning to predict coronary risk values for heart segments of the plurality of heart segments;
generate for a graphical user interface, a plurality of graphical visualizations including a first graphical visualization, from the data set that identifies myocardium at risk of having coronary disease,
wherein the first graphical visualization comprises:
a first graphical element corresponding to a first three-dimensional visualization of myocardial tissue, wherein the first three-dimensional visualization of myocardial tissue comprises a plurality of surface areas each associated with a heart segment of the plurality of heart segments;
one or more second graphical elements that are overlaid over, or that replaces, a surface area of the plurality of surfaces areas of the first graphical element, the surface area corresponding to a given heart segment having a parameter with a coronary risk value that exceeds a threshold that identifies myocardium at risk of having coronary disease; and
a third graphical element corresponding to a second three-dimensional visualization of myocardial tissue, wherein the first three-dimensional visualization is rendered in accordance with a first viewing perspective, and wherein the second three-dimensional visualization is rendered in accordance with a second viewing perspective, wherein the first viewing perspective is different from the second viewing perspective; and
render the plurality of graphical visualizations to be presented on a display.