Microsoft Technology Licensing, LLC

Craig Jensen

Sergey Bykov

Charles Joseph Williams

Lili Cheng

William L Portnoy

Steve Ickman

James H Lewallen

Thomas Matthew Laird-McConnell

Qi Lu

Daniel James Driscoll

Tom Laird-McConnell

Justin Brooks Cranshaw

Matthew Bret MacLaurin

David Raskino

Richard Ignacio Zaragoza

Bradley Phillip Gibson

Will Portnoy

Richard Daniel Marshall

Harlan Husmann

Janine A Harrison

Thomas Matthew Laird-Mcconnell

The techniques discussed herein allow an agent that provides dialog-based services to converse with a user via any mode. A central service programmed to be able to communicate via any mode collects information from agents necessary to act on the agents' behalf. In order to ensure that an agent has a maximal presence across modes, the central service provides auxiliary services such as language translation, fidelity upgrading and/or downgrading, modal constraint conformation, etc. Moreover, the central service provides session tracking via user profiles stored at the intercom so that if a user changes a mode by which the user is conversing with an agent, the central service can keep the context of the conversation across the new mode. Furthermore, agents can communicate with other agents via the central service, allowing other agents to provide services to agents or to add their services to an ongoing dialog with a user.

Multi-modal conversational intercom

Various technologies pertaining to generation of a client collage are described herein. A creator can construct a computer-implemented collage by selecting a plurality of computer-implemented objects from a respective plurality of network-accessible storage locations, and arranging the computer-implemented objects in a desired manner. Responsive to receiving an indication that the computer-implemented collage is suitable for publication, a server can render the collage and capture a backdrop image of the rendered collage. The server can further generate metadata that are packaged with the backdrop image as a client collage. When a client computing device requests the collage, the client collage is provided to the client computing device, which renders the backdrop image and processes the metadata. The metadata causes a click overlay to be placed upon the backdrop image, wherein functionality of the click overlay is defined by the metadata.

Generating a collage for rendering on a client computing device

A dynamic digital montage system assists a user in creating and publishing a montage about one or more specified topics. The system receives an identification of one or more topics of interest from the user, and based on the subject information, collects data from dynamic and static data sources for display in dedicated sections of a montage. The data is presented in one of a number of predefined but editable layouts for presentation to a user. In one implementation, at least one of the montage components is associated with a dynamic data source and is updated when new data is provided by the dynamic data source. In another implementation, the data sources attached to the montage components are analyzed on a periodic basis, and based on the analysis, data source assignments and/or the montage layout is revised.

Dynamic digital montage

The claimed subject matter relates to an architecture or arrangement that can limit access to sensitive information by means of encryption. In particular, data obtained from a payment instrument at, e.g., a Point-Of-Sale (POS) location can be encrypted at an early stage such that a POS (or another) application does not have access to the data in an unencrypted form and/or does not have access to a means for decrypting the data. For example, a Public Key Infrastructure (PKI) arrangement can be employed such that a back-end payment processor can define encryption algorithms, associate itself with a public key, and maintain a private key for decryption. The public key can be delivered to the POS location and employed for data encryption, and, moreover, the PKI can be regulated by the more trusted parties.

Securing payment data

The deployment of multiple embedded operating system components provides a designer with flexibility when customizing an embedded operating system for a target computing device. The embedded operating system components provide extra features to expand the functionality of the target computing device. The ease with which the designer may select various embedded operating system components to deploy from an originating computing device to the target computing device simplifies the design process. Configuration data of a core embedded operating system and configuration data of the deployed embedded operating system components are merged and any conflicts between configuration data are automatically resolved without rebooting the target computing device.

Deployment of multiple embedded operating system components

Growing community of inventors

Sammamish, WA, United States of America

Craig Jensen