Microsoft Technology Licensing, LLC

David Koronthaly

Rolando Jimenez Salgado

Arshish C Kapadia

Burra Gopal

Rolando Jimenez-Salgado

Sundaravadivelan Paranthaman

Rakesh Gupta

Manish Soni

Wei-Lun Lo

Alexandru Dan Burst

Anton Kirillov

Chris Keyser

Tarkan Sevilmis

Todd J Abel

Targo Tennisberg

Lawrence M Sanchez

Sushil Kumar

Mohammed Nazeeruddin

Maarten Mullender

Jagdish Singh

Ashish Kumar Singhal

Jared R Parker

Alisson A S Sol

Satish Kumar Chittamuru

Himesh Shah

Thomas Gersten

Kaushik Raj

Sai Shankar

Diwakar Mantha

Sundar Paranthaman

Arvind Kumar Krishnan

Shyam Sundar Jayshankar

Technologies are described herein for integrating external data from an external system into a client system. A subscription filed is selected. The subscription filed may include a read method and a query method. The read method may define fields of a client cache operating on the client system. The query method may be executed to retrieve, from the external system, field values corresponding to at least a subset of the fields. Upon executing the query method, the read method may also be executed to retrieve, from the external system, additional field values corresponding to a remaining subset of the fields that were not retrieved by executing the query method. The client cache is populated with the field values and the additional field values according to the fields.

Subscription for integrating external data from external system

Architecture that maintains the user experience as close as possible to the user experience when dealing with the usual/regular forms and data provided in an office application when dealing with hybrid forms and hybrid data. Synchronization of the hybrid data to single-master and multi-masters systems is accomplished when the associated hybrid client goes offline, changes are made to the hybrid data, and then the client comes back online. For example, where the single-master system is a line-of-business (LOB) server system and the multi-master system is an officer server that employs collaboration capability, the architecture allows office users to access, manipulate, and share LOB entity information using collaborative means, while at the same time, ensuring data and business process consistency for the LOB entity in the LOB system.

Blending single-master and multi-master data synchronization techniques

Concepts and technologies for offline modification of business data are disclosed. A client device caches a cached version of business data. A business connectivity services ('BCS') application executing on the client device reviews modifications made to the cached version of the business data and generates one or more operations corresponding to the modifications. The BCS application maintains a queue of operations. The BCS application reviews the operations in the queue and combines or removes operations that can be combined or removed without affecting the dependencies between related operations. The client device accesses a business data server that hosts the business data, and transmits the operations to the business data server in the determined order.

Offline modification of business data

Methods and systems of leveraging synchronous communication protocols to enable asynchronous application and line of business behaviors. An application platform may be provided and configured to provide a pending state for any synchronous operation. The pending state may indicate that the operation has not been completed yet. For an application which may know how to track an operation that has a pending state, the application may control when the operation enters and exits the pending state. The application may communicate to the application platform to hold off on other operations dependent upon the pending operation when the pending operation is not complete. For an application which does not know how to track an operation that has a pending state, the application platform may ignore the pending state of the operation and proceed to other operations. Accordingly, the synchronous user experience is preserved where a straightforward, down-level user interface and experience is appropriate. The user interface and experience is also extended when an application knows how to interpret and present the asynchronous nature of various underlying systems.

Leveraging synchronous communication protocols to enable asynchronous application and line-of-business behaviors

Architecture for uninterrupted access to business data by enabling work on rich client machines to be stored in a local business data cache that is always available. A dispatching mechanism executes read/write requests against the local cache transparently to a client application, an automatic synchronization mechanism propagates changes bi-directionally when the client goes online and a live connection with the corresponding backend data source is available. A declarative data access model is employed based on operation stereotyping and grouping that enables client applications to transparently execute create, read, update, delete, query (CRUDQ) and association operations against the local cache as if executed against the actual business data source. The architecture supports the offline creation of entities and sets of related entities when the entity identifiers are generated by the business data source and offline navigation of entity associations when foreign keys are not present in the related entities.

Business data access client for online/offline client use

User interfaces are defined by metadata for use with productivity suite applications in a wrapped window, a task pain, or some other suitable representation. Data can be bound to a data source in a one-way format such that changes from the data source propagate to property fields in the UI form. Data can also be bound to a data source in a two-way format such that changes from the property field of the UI propagate back to the data source. The data source can be a local cache such as for synchronization between a productivity suite application and a line of business (LOB) application (e.g., CRM applications). A rendering engine is arranged to process the UI and data bindings such that custom event handlers are defined in a code behind assembly format. Productivity suite items are accessible from the code behind assembly through a series of item interfaces.

Interfaces for a productivity suite application and a hosted user interface

System and method involving the manipulation of information that may be embedded in content in a variety of ways and for a number of reasons, such as for protecting the embedded content from unauthorized users. Additionally, application program interfaces are disclosed that expose one or more methods relating to encoding data before the data is embedded in some content. Conversely, a method for decoding data that has been embedded in content is provided.

Manipulation of information embedded in content

Recurring appointment items in a calendaring application are synchronized and recorded in a backend Line Of Business (LOB) service. Items marked in the calendaring application for time recording are used to create a recurring bound item with extended properties. A sweeper module scans on every run the mailbox for such recurring bound items. Occurrences of bound recurring appointments, which occur between the last scan and the current scan, are determined and detached from the corresponding recurring series, such that standalone bound items, are created for such occurrences that can be recognized by an LOB application. Entries for bound items are retrieved from a client data store and synchronized it with the backend LOB service through a create, update, or delete operation request.

Achieving recurring item recordings from calendaring applications over LOB systems

A facility for obtaining information related to a selection within a hierarchical data structure is provided. The facility detects a selection of a node in a hierarchical data structure, and determines whether the node is a significant node. Responsive to determining that the currently selected node is a significant node, the facility transforms the significant node into a format suitable for retrieving additional information related to the significant node. For example, the format may include a context, which identifies a piece of metadata, and at least one item of data from the hierarchical data structure. The facility then obtains the additional information.

Obtaining and displaying information related to a selection within a hierarchical data structure

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David Koronthaly