Abstract: A method and system for adding a direct interaction to a static visualization belongs to the field of visualization. The method includes: deconstructing a common visualization spatial layout into an atomic spatial constraint; taking an initial chart as input, and inferring an original spatial constraint of the common visualization spatial layout from an existing visualization chart; and calculating a post-interaction spatial constraint based on the inferred original spatial constraint of the visualization layout and a received user interaction instruction, where the post-interaction spatial constraint is configured to drive visualization elements to balance to a new spatial layout. The method aims to solve the problem that current visualizations lack interactions or are not interpretable.

Abstract: A method and a system for constructing a visualization chart based on natural language are provided. The method includes: receiving, by an attribute-level model, natural language and data attributes as input, and predicting attributes and filters based on each of the data attributes; determining, by a context state machine, content to be visualized based on context and the predicted attribute and filter of a current sentence; and constructing, by a visualization generation module, a visualization chart based on an attribute and a filter to be visualized. The method parses the ambiguous and diverse natural language into data attributes and filter conditions based on deep learning, and constructs the visualization chart based on the extracted data attributes to respond to the user's natural language. The method lowers the barrier to data visualization, and possesses strong practicality and strong promotion potential.

Abstract: Technologies are generally described for systems and methods effective to display a first output and simultaneously display a second output corresponding to user input superimposed on the first output. In some examples, a second output is displayed on a display simultaneously with and superimposed on a first output. The second output corresponds to user input. In an area of the display that the first output and the second output overlap, the second output is opaque and the first output is visible through the opaque second output. In an area of the display that the first output and the second output do not overlap, the first output is visible. The first output may be a video portion of a video telephone conference, and the second output may correspond to annotations or notes that are received from a user during the telephone conference.

Abstract: The disclosure relates to controlling and manipulating an image of an object on a display device based on tracked eye movements of an observer. When the object is displayed according to an initial view, the observer's eye movement is tracked and processed in order to determine the focus of the observer's attention or gaze on the image. Thereafter, the displayed image is modified to provide a better view of the part of the object in which the observer is most interested. This is accomplished by modifying at least one of the spatial positioning of the object within the viewing area, the angle of view of the object, and the viewing direction of the object.

Abstract: A method, apparatus, computer readable medium storing computer readable instructions are disclosed for processing volumetric image data. According to the method, 3-dimensional data points are collected. A plurality of 2-dimensional image maps is obtained from the 3-dimensional data points. At least one of the plurality of 2D image maps is extracted to form at least one image frame. A frame gallery is created from the at least one image frame.

Abstract: The disclosure relates to controlling and manipulating an image of an object on a display device based on tracked eye movements of an observer. When the object is displayed according to an initial view, the observer's eye movement is tracked and processed in order to determine the focus of the observer's attention or gaze on the image. Thereafter, the displayed image is modified to provide a better view of the part of the object in which the observer is most interested. This is accomplished by modifying at least one of the spatial positioning of the object within the viewing area, the angle of view of the object, and the viewing direction of the object.

Abstract: The disclosure relates to controlling and manipulating an image of an object on a display device based on tracked eye movements of an observer. When the object is displayed according to an initial view, the observer's eye movement is tracked and processed in order to determine the focus of the observer's attention or gaze on the image. Thereafter, the displayed image is modified to provide a better view of the part of the object in which the observer is most interested. This is accomplished by modifying at least one of the spatial positioning of the object within the viewing area, the angle of view of the object, and the viewing direction of the object.

Abstract: The disclosure relates to adjusting intensities of images. The method includes receiving information identifying of a plurality of regions within an image; receiving an intensity adjustment of at least one of the plurality of regions; adjusting the intensities of the at least one plurality of regions based on the received intensity adjustment; interconnecting at least two of the plurality of regions by applying a two-dimensional method; generating intensity adjustments for at least one pixel outside the plurality of regions based on the received intensity adjustment of at least one of the plurality of regions and the interconnection of at least two of the plurality of regions; and applying the generated intensity adjustments to the image.

Abstract: The disclosure relates to controlling and manipulating an image of an object on a display device based on tracked eye movements of an observer. When the object is displayed according to an initial view, the observer's eye movement is tracked and processed in order to determine the focus of the observer's attention or gaze on the image. Thereafter, the displayed image is modified to provide a better view of the part of the object in which the observer is most interested. This is accomplished by modifying at least one of the spatial positioning of the object within the viewing area, the angle of view of the object, and the viewing direction of the object.

Abstract: The disclosure relates to controlling and manipulating an image of an object on a display device based on tracked eye movements of an observer. When the object is displayed according to an initial view, the observer's eye movement is tracked and processed in order to determine the focus of the observer's attention or gaze on the image. Thereafter, the displayed image is modified to provide a better view of the part of the object in which the observer is most interested. This is accomplished by modifying at least one of the spatial positioning of the object within the viewing area, the angle of view of the object, and the viewing direction of the object.

Abstract: The disclosure relates generally to receiving original image data, decomposing the original image data into layers, compressing a dynamic range of each of layers, and integrating compressed layers to form a final image.

Abstract: A method, apparatus, computer readable medium storing computer readable instructions are disclosed for processing volumetric image data. According to the method, 3-dimensional data points are collected. A plurality of 2-dimensional image maps is obtained from the 3-dimensional data points. At least one of the plurality of 2D image maps is extracted to form at least one image frame. A frame gallery is created from the at least one image frame.

Abstract: The disclosure relates to adjusting intensities of images. The method includes receiving information identifying of a plurality of regions within an image; receiving an intensity adjustment of at least one of the plurality of regions; adjusting the intensities of the at least one plurality of regions based on the received intensity adjustment; interconnecting at least two of the plurality of regions by applying a two-dimensional method; generating intensity adjustments for at least one pixel outside the plurality of regions based on the received intensity adjustment of at least one of the plurality of regions and the interconnection of at least two of the plurality of regions; and applying the generated intensity adjustments to the image.

Abstract: Technologies are generally described for systems and methods effective to display a first output and simultaneously display a second output corresponding to user input superimposed on the first output. In some examples, a second output is displayed on a display simultaneously with and superimposed on a first output. The second output corresponds to user input. In an area of the display that the first output and the second output overlap, the second output is opaque and the first output is visible through the opaque second output. In an area of the display that the first output and the second output do not overlap, the first output is visible. The first output may be a video portion of a video telephone conference, and the second output may correspond to annotations or notes that are received from a user during the telephone conference.

Abstract: The disclosure relates to adjusting intensities of images. The method includes receiving information identifying of a plurality of regions within an image; receiving an intensity adjustment of at least one of the plurality of regions; adjusting the intensities of the at least one plurality of regions based on the received intensity adjustment; interconnecting at least two of the plurality of regions by applying a two-dimensional method; generating intensity adjustments for at least one pixel outside the plurality of regions based on the received intensity adjustment of at least one of the plurality of regions and the interconnection of at least two of the plurality of regions; and applying the generated intensity adjustments to the image.

Abstract: A method, apparatus, computer readable medium storing computer readable instructions are disclosed for processing volumetric image data. According to the method, 3-dimensional data points are collected. A plurality of 2-dimensional image maps is obtained from the 3-dimensional data points. At least one of the plurality of 2D image maps is extracted to form at least one image frame. A frame gallery is created from the at least one image frame.

Abstract: The disclosure relates to receiving original image data decomposing the original image data into a plurality of layers, compressing a dynamic range of each of the plurality of layers, and integrating the plurality of compressed layers to form a final image.

Abstract: The disclosure relates to controlling and manipulating an image of an object on a display device based on tracked eye movements of an observer. When the object is displayed according to an initial view, the observer's eye movement is tracked and processed in order to determine the focus of the observer's attention or gaze on the image. Thereafter, the displayed image is modified to provide a better view of the part of the object in which the observer is most interested. This is accomplished by modifying at least one of the spatial positioning of the object within the viewing area, the angle of view of the object, and the viewing direction of the object.