Microsoft Technology Licensing, LLC

Microsoft Corporation

John Yovin

James Charles Finger, Ii

Olivier Colle

Shawn Michael Brown

Khurshed Mazhar

Arthur William James Freeman

Shai Guday

Joseph H Matthews, Iii

Sharad Agarwal

Raman Kumar Sarin

Shawn M Thomas

Joseph Alton Schrader

Lee Dicks Clark

Colleen Elizabeth Hamilton

Ted Tai-Yu Chen

Sogol Malekzadeh

Robert McKee Howard

Joseph Spencer King

Aaron Naoyoshi Sheung Yan Woo

Jeffrey Alan Davis

Andrew Paul Begun

David A Braun

Michael Burt Goulding

Alan Bennett Auerbach

John D Skovron

Andrew Haon

Praful Chavda

Brian Douglas King

Todd Myles Derksen

Bernardo Iturriaga Dubost

Jennifer Anne Karr

John D Skovorn

Jay Finger

Oliver Colle

Cathleen M Guinan

Colleen Hamilton

Shawn Brown

Robert Howard

Methods, systems, and computer program products are provided that address issues related to data privacy by enabling users to elect various levels of data sharing. A user of a user device is enabled to indicate their comfort level with sharing, transmitting, or otherwise exposing individual activity records (data entities) with respect to various activity categories. The exposure of activity records may be controlled with respect to on-device and off-device components. Furthermore, privacy profiles may be automatically generated for the user, and the privacy profiles may be automatically activated in corresponding situations.

Privacy-based degradation of activity signals and automatic activation of privacy modes

A method and arrangement is provided which allows a PC or other client device to be used to communicate with third parties through a mobile communication device when a user and the mobile communication device are not in the vicinity of one another. The arrangement allows the user to control operation of the mobile communication device over a WLAN so that the user can send or receive messages such as voice and text messages to a remote party from the client device through the mobile communication device over the WLAN and the mobile communication network employed by the mobile device.

Remote access to a mobile communication device over a wireless local area network (WLAN)

In embodiments of restricted execution modes, a mobile device can display a device lock screen on an integrated display device, and transition from the device lock screen to display a shared space user interface of a shared space. The transition to display the shared space user interface is without receiving a PIN code entered on the device lock screen. The mobile device implements a restricted execution service that is implemented to activate a restricted execution mode of the mobile device, and restrict access of a device application to device content while the restricted execution mode is activated. The restricted execution service can also allow a shared device application that is included in the shared space access to the device content while the restricted execution mode is activated.

Restricted execution modes

Mobile device emergency service techniques are described. In embodiments, a client device includes one or more modules implemented at least partially in hardware and configured to implement an emergency service. The emergency service configured to support operations including generating a user interface for display on a display device, receiving one or more inputs usable to form an emergency contacts list that includes a plurality of emergency contacts, and causing the emergency contacts list to be communicated to one or more other client devices for use in generating a message to be communicated automatically and without user intervention to the emergency contacts in the emergency contacts list responsive to a trigger.

Mobile device emergency service

Example apparatus and methods concern controlling a variable flash to improve image detection. One example apparatus includes a digital camera and a variable flash configured to be controllable to operate at different selected illumination levels. The apparatus may be configured to identify a current imaging condition associated with the digital camera and to then determine a lux setting for the variable flash as a function of the current imaging condition. The flash may then be controlled as a function of the lux setting for subsequent image acquisition. The acquisition, analysis, and flash control may be exercised until a desired illumination is achieved. In one embodiment, determining the current imaging condition may include analyzing a frame acquired from the digital camera for attributes including image brightness, and edge detectability. In one embodiment, input from a light sensor may also be considered.

Variable flash control for improved image detection

An arrangement is provided where all applications in an interactive media environment run on a single application thread in a media player. Event queues are utilized to schedule the application thread's processing of workitems corresponding to events that occur in the environment. Workitems include methods to be invoked when the workitem is processed and arguments for the method. Workitems further include a begin time and an end time and are ordered in the event queue first by begin time followed by the order in which they were inserted into the queue. The application thread marks workitems whose begin times corresponds to the current or previous time and then processes marked workitems from the queue in order. Such processing is committed so that once the application thread begins processing of a workitem it does not stop. Workitems are dropped from the event queue if their end times have been passed.

Queueing events in an interactive media environment

In an interactive media environment, a model is provided where applications, each comprising zero or more script components and zero or more markup components, are themselves handled as visual elements having a Z order. A resource-efficient rendering order is provided where the application that has focus in an interactive media environment (by virtue of its receipt of user events) is rendered first. The remaining applications are rendered in top down order, i.e., in reverse Z order. Rendering is performed by drawing into one or more graphics buffers associated with respective applications. Frames for applications are composited from the graphics buffers bottoms up, in Z order, to provide the display with the correct appearance.

Rendering and compositing multiple applications in an interactive media environment

A computing device has two or more software stacks, each stack simultaneously running a different operating system. Only one enabled operating system at a time has control of hardware resources of the computing device. Each disabled operating system has its device drivers disabled. The drivers may be disabled by stopping device driver messages to devices at a firmware layer unassociated with any operating system. The drivers may be disabled by having their associated operating system dynamically unload them when the operating system is disabled. In some instances, the drivers may be modified to include a 'stop' control that tells the driver to stop communicating with its associated device, and a 'resume' control that tells the driver to resume communication. When an operating system is disabled, the operating system may send a &#x201c;stop&#x201d; message to its device drivers. Drivers associated with messages passed between operating systems may remain enabled.

Controlling hardware across two or more simultaneously running operating systems

In an interactive media environment, input events are distributed to a plurality of applications where each application includes zero or more script components and zero or more markup files and has a Z order which corresponds to the position of the applications' visual elements on a display. An input event processing order is utilized where the application that has focus in an interactive media environment (by virtue of its receipt of user events) is provided with the first opportunity to consume the input event. If the focused application does not consume the input event, it is then delivered to the remaining applications in top down, inverse Z order. Each application is enabled with the ability to consume an input event, pass it on to lower Z ordered applications, hide it from lower Z ordered applications, or otherwise handle it. Input event processing stops when an application consumes the input event.

Distributing input events to multiple applications in an interactive media environment

Timing for execution of certain user inputs and application instructions occurring during play of an interactive multimedia presentation is discussed. A current state is defined by a state of the presentation system at the time a current media sample is being played to a user. A predicted state is defined by a state of the presentation system one or more future play times. Examples of current and predicted states include media retrieval states and media presentation states. An instruction or user input that is based on the current state is identified, and the predicted state is used to determine an effect of the instruction or input. The effect may then be executed at a predetermined time, such as after the next playable media sample is played to the user.

Timing aspects of media content rendering

Playing an interactive multimedia presentation involves pre-rendering a media object at certain times based on a frame rate of the interactive content, a frame rate of the video content (which may include video, audio, data, or any combination thereof), and a play speed of the presentation. Certain actions taken include calculating a current elapsed play time representing an amount of the presentation's play duration that has passed. Based on the calculated time, a current interactive content presentation time is ascertained from an interactive content timeline. The interactive content timeline represents times at which the media object is presentable. A subsequent interactive content presentation time is selected from the interactive content timeline. The presentation state of the media object is predicted for the subsequent interactive content presentation time. The media object is pre-rendered within a time offset period before the subsequent interactive content presentation time occurs.

Synchronization aspects of interactive multimedia presentation management

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Woodinville, WA, United States of America

John Yovin