Tableau Software, Inc.

Other

Robin Stewart

Justin Talbot

Bora Beran

Jock Douglas Mackinlay

Jun Ho Kim

Christopher Richard Stolte

Marc Rueter

Qiliang Li

Ross Thomas Bunker

Clark Wildenradt

Keith Dyson

Renee Gail Stewart

Jun Kim

A computer system displays a graphical user interface that includes a data visualization region, a shelf region, and a schema information region. The computer system receives a first user input to place a first dimension data field from the schema information region into the shelf region. In accordance with the first user input, the computer system determines a visualization level of detail that is based on at least the first dimension data field. The computer system receives a second user input to specify a first aggregation. The first aggregation has a custom level of detail that is distinct from the visualization level of detail. The computer system builds a visual specification that includes the visualization and custom levels of detail. The computer system generates a data visualization corresponding to the visual specification and displays the data visualization in the data visualization region.

Systems and methods for using multiple aggregation levels in a single data visualization

Systems and methods of dynamic IoT device regulation and control can aid in shifting a user's emotional state from a first state of mind to a preferred second state of mind, using the user's biomarker response to device settings. Particularly, an IoT device controller may be embedded within a wearable device that is wirelessly connected to a computing device and one or more IoT devices. Initially, each wearable device can be calibrated, wherein a matrix of sensed user biomarker responses can be generated. In some embodiments, the system continuously monitors user biomarkers to detect which physiological state exists. When the user enters into the first physiological/psychological state, the system can adjust each IoT device to align with the second state. When the system detects that the user biomarker response has not shifted, the system can continuously adjust IoT settings based upon a learning algorithm having monitored user biomarkers as input.

Systems and methods for dynamic biometric control of IoT devices

An electronic device displays a chart in accordance with contents of a plurality of shelf regions of a data visualization interface. The chart includes visual marks representing a set of data. The electronic device generates a visual analytic object by applying a first analytic operation to the set of data represented by the visual marks, and displays the visual analytic object superimposed over the chart. The device detects user input to select the displayed visual analytic object and place an icon representing the visual analytic object onto a first shelf region of the plurality of shelf regions. In response to the user input, the electronic device updates content of the first shelf region to include an association with the first analytic operation corresponding to the visual analytic object.

Systems and methods for using analytic objects in a dynamic data visualization interface

Systems and methods of dynamic biometric detection and response are provided for the purpose of establishing baseline health status while conveying real-time drug prescription usages and reactions from baseline data. The dynamic monitoring system may be embedded within a wristband, ring, vest, and/or waistband in wireless communication with a computing device or server. Each wearable device may employ interchangeable and embedded sensors to detect inertia movements; 360-imaging fall detections; and a variety of body-emitting vital signs. The system may include a processor operable to sense user location, motion, activity, and biomarkers for the purpose of detecting the user's behavior pattern, wherein an enhanced machine-learning algorithm is used to identify repetitive actions within the user's behavior pattern; and, based upon this pattern, the system is able to detect one or more anomalies for the purpose of generating an anomaly alert for third party notification and quantitative analysis at a server.

Systems and methods for dynamic biometric detection and response

A device displays a chart representing data from a dataset. The chart has a first region displaying labels corresponding to data values of a first data field, a second region displaying labels corresponding to data values of a second data field, and a third region displaying visual marks representing aggregated data corresponding to pairs of data values from the first and second data fields. In response to a user input, the device removes visual marks from the chart. When the input location is the first region, the device removes visual marks in the first chart corresponding to a first data value of the first data field. When the input location is the second region, the device removes visual marks corresponding to a second data value of the second data field. Otherwise, the device removes only one visual mark. This updates the displayed chart.

Interactive data visualization user interface with hierarchical filtering based on gesture location on a chart

A method displays a chart including visual marks representing a dataset. The chart is based on content of displayed shelf regions, each determining a respective characteristic of the visual marks. The method generates a visual analytic object by applying a first analytic operation to the dataset, and displays the visual analytic object over the chart. The method detects user input to select the displayed visual analytic object and place an icon representing the visual analytic object onto a first shelf region. The first shelf region defines a first characteristic of the visual marks. In response to the user input, the method updates content of the first shelf region to specify association with the first analytic operation and updates the first characteristic of the visual marks in the chart based on values of the set of data represented by the visual marks relative to values computed by the first analytic operation.

A method displays a graphical user interface for a data visualization application. The user interface includes a schema information region that includes fields from a database. A user specifies a first aggregation using the interface. The first aggregation groups by a first set of fields and specifies an aggregated output field. The user also specifies a second aggregation. The second aggregation references the first aggregation and groups by a second set of fields. The set may include the aggregated output field. The second set is different from the first set. The method builds a visual specification based on the first and second aggregations. The method may retrieve tuples of data from the database using database queries generated from the visual specification, where each tuple includes data calculated based on the second aggregation. The method may display a data visualization, including the data calculated based on the second aggregation.

A method displays a chart that includes visual marks representing a data set, displayed according to contents of displayed shelf regions, which determine characteristics of the chart. The method detects selection of a plurality of visual marks, and visually emphasizes the selected plurality of visual marks. The method also detects a first input on the selected marks, and displays a moveable icon corresponding to the selected visual marks while maintaining display of the visual marks. The method detects a second input on the moveable icon, and moves the moveable icon over a first shelf region. Upon ceasing to detect the input, the method updates the content of the first shelf region based on the selected visual marks, and updates the chart in accordance with updated content of the first shelf region, including applying the characteristic of the first shelf to the selected visual marks distinct from the unselected visual marks.

Systems and methods for using displayed data marks in a dynamic data visualization interface

The various embodiments described herein include methods and devices for interactive data visualization. In one aspect, a method is performed at a device with a touch-sensitive surface and a display. The method includes displaying a first chart with one or more visual marks corresponding to a first dimension and a first measure. The method further includes determining whether a detected touch input is in a first region corresponding to the first dimension or in a second region corresponding to the first measure. If the touch input is in the first region, the method displays a plurality of dimension options, and, in response to selection of a respective dimension option, adds a second dimension through an animated transition to display a second chart. At least one visual mark in the first chart is split into a plurality of visual marks in the second chart through the animated transition.

Interactive data visualization user interface with gesture-based data field selection

A method includes displaying at least a first portion of a chart at a first magnification, the first portion containing a plurality of data marks. The method also includes detecting a first input at a location that corresponds to the first portion of the chart and, in response, zooming in to display a second portion of the chart at a second magnification, the second portion including a first data mark in the plurality of data marks. The method further includes detecting a second touch input at a location that corresponds to the second portion of the chart, and, in response: if one or more predefined data-mark-information-display criteria are not met, zooming in to display a third portion of the chart at a third magnification, the third portion including the first data mark; and, if the one or more predefined data-mark-information-display criteria are met, displaying information about the first data mark.

Methods and devices for displaying data mark information

A user selects a dataset and a first interaction profile. There are multiple interaction profiles, each specifying a corresponding user interface and a corresponding decision tree for forming data visualizations according to user-selected data fields. A first data visualization user interface is displayed corresponding to the first interaction profile. Using the first data visualization user interface, the user selects data fields from the dataset and uses them to specify data visualization characteristics. The method displays a first data visualization according to the user-selected data fields and the decision tree for the first interaction profile. When the user selects a second interaction profile, the method displays a second data visualization according to the second interaction profile. The second data visualization uses at least some of the user-selected data fields. The second data visualization is displayed according to the specified data visualization characteristics and the decision tree for the second interaction profile.

Interactive data visualization user interface with multiple interaction profiles

A method displays a chart including visual marks representing a dataset. The chart is displayed according to contents of multiple shelf regions. The shelf regions determine characteristics of the chart. The method generates a visual analytic object by applying an analytic operation to the set of data represented by the visual marks, and displays the visual analytic object superimposed over the chart. The method detects user input to select the displayed visual analytic object and place an icon representing the visual analytic object onto a first shelf region. In response, the method updates the content of the first shelf region to associate it with the analytic operation corresponding to the visual analytic object and updates the chart according to the updated content of the first shelf region. This includes updating the chart based on values of the dataset represented by the visual marks relative to the analytic operation.

A method displays a chart that includes visual marks representing a data set, displayed according to contents of displayed shelf regions, which determine characteristics of the chart. The method detects selection of a plurality of visual marks, and visually emphasizes the selected plurality of visual marks. The method also detects a first input on one of the selected marks, and displays a moveable icon corresponding to the selected visual marks while maintaining display of the visual marks. The method detects a second input on the moveable icon, and moves the moveable icon over a first shelf region. Upon ceasing to detect the input, the method updates the content of the first shelf region based on the selected visual marks, and updates the chart in accordance with updated content of the first shelf region.

A method at an electronic device with a touch-sensitive surface and a display includes displaying a first chart on the display. The first chart concurrently displays a first set of categories and each respective category has a corresponding visual mark displayed in the first chart. The method further includes detecting a first touch input at a location on the touch-sensitive surface that corresponds to a location on the display of a first visual mark for a first category in the first chart, and, in response to detecting the first touch input, removing the first category and the first visual mark from the first chart via an animated transition, and updating display of the first chart. The first visual mark moves in concert with movement of a finger contact in the first touch input during at least a portion of the animated transition.

Methods and devices for adjusting chart filters

A method generates a graphical representation of a data source using a graphical user interface. The user interface includes a schema information region and a data visualization region. The schema information region includes field names associated with data fields. The data visualization region includes shelf regions that determine characteristics of a visual graphic. Each shelf region is configured to receive user placement of field names. The user selects field names and places each field name in a respective shelf region. The user edits a first shelf region, creating a first calculated element in the first shelf region. The first calculated element does not match any of the field names in the schema information region. The method generates a visual graphic based on the content of the shelf regions, including the user-selected field names and the first calculated element, and displays the visual graphic in the data visualization region.

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Seattle, WA, United States of America

Robin Stewart