Microsoft Technology Licensing, LLC

Lewey Geselowitz

Igor B Peev

Adam G Poulos

Andrew William Fitzgibbon

Richard Malcolm Banks

Nicholas Fajt

Wei Zhang

Kim Pascal Pimmel

Stephanie Horn

Daniel Benjamin Witriol

Ehab Sobhy

John Bevis

Rotem Bennet

Arthur Charles Tomlin

Brian James Mount

Anthony James Ambrus

Mathew Julian Lamb

Dan B Kroymann

John Alfred Payne

Ehab Sobhy Deraz

Safiya Bhojawala

Puneet Bhatia

James Thomas Marshall

Roger Sebastian-Kevin Sylvan

Matthew Willem Asplund

Paavany Jayanty

Jagan Subhas

A system is provided that allows a user to visualize data. A dataset that includes a plurality of data items arranged in a two-dimensional (2D) format is received. A request to visualize the dataset in three dimensions is then received. A three-dimensional (3D) visualization of the dataset is then generated based on this request. This 3D visualization adds a third dimension to the 2D arrangement of data items, where the extent of the third dimension is commensurate with the type and value of the data items. This 3D visualization includes an initial depiction of the dataset which is generated from a point of view that is specified by this request. The initial depiction of the dataset is then displayed on a display device of the system in lieu of the dataset itself.

Using perspective to visualize data

Embodiments that relate to displaying holographic keyboard and hand images in a holographic environment are provided. In one embodiment depth information of an actual position of a user's hand is received from a capture device. The user's hand is spaced by an initial actual distance from the capture device, and a holographic keyboard image is displayed spatially separated by a virtual distance from a holographic hand image. The user's hand is determined to move to an updated actual distance from the capture device. In response, the holographic keyboard image is maintained spatially separated by substantially the virtual distance from the holographic hand image.

Holographic keyboard display

Various techniques for visualizing cross-pivoted tables are disclosed herein. In one embodiment, a method includes determining if a first dimension and a second dimension of a cross-pivoted table contain non-numerical values, the cross-pivoted table having a plurality of data points each dependent upon a first value in the first dimension and a second value in the second dimension. In response to determining that the first dimension and the second dimension contain non-numerical first and second values, the non-numerical first and second values can be converted to corresponding numerical first and second values. The method can then include plotting, on a display, a visual representation of the plurality of data points of the cross-pivoted table using the numerical first and second numerical values as first and second axis, respectively.

Visualization of cross-pivoted data

Performance and capability improvements of computer devices that provide digital images of heatmap visualizations for datasets are provided via both systems and methods. A value-color spectrum is correlated to the dataset via a multi-pass rendering. The multi-pass rendering yields a two-channel mask, which is applied to a map to show the dataset in a heatmap visualization on that map, and may be continually used as the map is manipulated by a user. User interface tools are also provided to enable a user to specify a custom value-color spectrum, how the dataset is to be aggregated, the area of effect for a data point in the visualization, the strength of effect for a data point in the visualization, and which specifies how a dataset will be visually represented in a heatmap.

Custom heatmaps

Systems and methods are provided to improve map type data visualizations in which custom images are used as background against which datasets are visualized. In various examples, coordinate systems are automatically generated and applied to the custom image based on the positional data of the dataset. The custom image may replace a pre-existing background, and the plotting of the dataset may be automatically modified based on differences between the pre-existing background and the custom image. Aspects provide for enhanced user control of the map type visualization to further modify how datasets are plotted and how visualizations are presented. Example modifications include offsets and scales, which may be automatically determined and applied or set manually. In some examples, the custom image may be part of a set of image tiles, which are operable to provide various levels of detail from several viewing angles and heights.

Custom map configuration

Embodiments that relate to displaying holographic keyboard and hand images in a holographic environment are provided. In one embodiment depth information of an actual position of a user's hand is received. Using the depth information, a holographic hand image representing the user's hand is displayed in a virtual hand plane in the holographic environment. In response to receiving a keyboard activation input from the user and using the depth information, the holographic keyboard image is adaptively displayed in a virtual keyboard plane in the holographic environment at a virtual distance under the holographic hand image representing the user's hand.

Methods for enabling hands-free selection of objects within an augmented reality environment are described. In some embodiments, an object may be selected by an end user of a head-mounted display device (HMD) based on detecting a vestibulo-ocular reflex (VOR) with the end user's eyes while the end user is gazing at the object and performing a particular head movement for selecting the object. The object selected may comprise a real object or a virtual object. The end user may select the object by gazing at the object for a first time period and then performing a particular head movement in which the VOR is detected for one or both of the end user's eyes. In one embodiment, the particular head movement may involve the end user moving their head away from a direction of the object at a particular head speed while gazing at the object.

Radial selection by vestibulo-ocular reflex fixation

Growing community of inventors

Redmond, WA, United States of America

Lewey Geselowitz