Abstract: Techniques for metadata-driven dynamic content serving. Metadata content is stored as a source instance. The metadata content is utilized to provide dynamically-constructed pages. The metadata content is published to runtime pods communicatively coupled to receive the metadata content. The source instance includes a metadata definition repository and is a primary source of dynamic data for serving pages in the runtime pods. The runtime pods are groups of multiple servers that act as a single entity to dynamically generate metadata-driven content in response to requests received from client devices. A request for content is received with a selected one of the runtime pods for a specific site. The specific site is mapped to a user identified by a user identifier. The user identifier is utilized to retrieve site metadata from a site metadata server. Content is provided in response to the request with the selected runtime pod utilizing the metadata content.

Abstract: Techniques for metadata-driven dynamic content serving. Metadata content is stored as a source instance. The metadata content is utilized to provide dynamically-constructed pages. The metadata content is published to runtime pods communicatively coupled to receive the metadata content. The source instance includes a metadata definition repository and is a primary source of dynamic data for serving pages in the runtime pods. The runtime pods are groups of multiple servers that act as a single entity to dynamically generate metadata-driven content in response to requests received from client devices. A request for content is received with a selected one of the runtime pods for a specific site. The specific site is mapped to a user identified by a user identifier. The user identifier is utilized to retrieve site metadata from a site metadata server. Content is provided in response to the request with the selected runtime pod utilizing the metadata content.

Abstract: Techniques for metadata-driven dynamic content serving. Metadata content is stored as a source instance. The metadata content is utilized to provide dynamically-constructed pages. The metadata content is published to runtime pods communicatively coupled to receive the metadata content. The source instance includes a metadata definition repository and is a primary source of dynamic data for serving pages in the runtime pods. The runtime pods are groups of multiple servers that act as a single entity to dynamically generate metadata-driven content in response to requests received from client devices. A request for content is received with a selected one of the runtime pods for a specific site. The specific site is mapped to a user identified by a user identifier. The user identifier is utilized to retrieve site metadata from a site metadata server. Content is provided in response to the request with the selected runtime pod utilizing the metadata content.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for facilitating user-controlled management of webpage elements for dynamic customization of relevant information. In one embodiment and by way of example, a method includes receiving, in real-time, a request for performing one or more tasks relating to dynamic customization of webpage elements relating to a webpage package. The request may be received at a first computing device over a network. The method may further include performing, in real-time, the one or more tasks.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for facilitating user-controlled mapping of sites and synchronization of their content. In one embodiment and by way of example, a method includes receiving a first generation request for generating a site template in a first site network. The first generation request is received at a first computing device. The method may further include generating the site template, generating a child site based on the site template, and mapping the child site to one or more of a parent site and one or more child sites within the first site network.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for facilitating user-controlled management of webpage elements for dynamic customization of relevant information. In one embodiment and by way of example, a method includes receiving, in real-time, a request for performing one or more tasks relating to dynamic customization of webpage elements relating to a webpage package. The request may be received at a first computing device over a network. The method may further include performing, in real-time, the one or more tasks.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for facilitating user-controlled management of webpage elements for dynamic customization of relevant information. In one embodiment and by way of example, a method includes receiving, in real-time, a request for performing one or more tasks relating to dynamic customization of webpage elements relating to a webpage package. The request may be received at a first computing device over a network. The method may further include performing, in real-time, the one or more tasks.

Abstract: Metadata content is stored as a source instance. The metadata content is utilized to provide dynamically-constructed pages. The metadata content is published to runtime pods communicatively coupled to receive the metadata content. The source instance includes a metadata definition repository and is a primary source of dynamic data for serving pages in the runtime pods. The runtime pods are groups of multiple servers that act as a single entity to dynamically generate metadata-driven content in response to requests received from client devices. A request for content is received with a selected one of the runtime pods for a specific site. The specific site is mapped to a user identified by a user identifier. The user identifier is utilized to retrieve site metadata from a site metadata server. Content is provided in response to the request with the selected runtime pod utilizing the metadata content.

Abstract: Techniques for metadata-driven dynamic content serving. Metadata content is stored as a source instance. The metadata content is utilized to provide dynamically-constructed pages. The metadata content is published to runtime pods communicatively coupled to receive the metadata content. The source instance includes a metadata definition repository and is a primary source of dynamic data for serving pages in the runtime pods. The runtime pods are groups of multiple servers that act as a single entity to dynamically generate metadata-driven content in response to requests received from client devices. A request for content is received with a selected one of the runtime pods for a specific site. The specific site is mapped to a user identified by a user identifier. The user identifier is utilized to retrieve site metadata from a site metadata server. Content is provided in response to the request with the selected runtime pod utilizing the metadata content.

Abstract: Techniques for metadata-driven dynamic content serving. Metadata content is stored as a source instance. The metadata content is utilized to provide dynamically-constructed pages. The metadata content is published to runtime pods communicatively coupled to receive the metadata content. The source instance includes a metadata definition repository and is a primary source of dynamic data for serving pages in the runtime pods. The runtime pods are groups of multiple servers that act as a single entity to dynamically generate metadata-driven content in response to requests received from client devices. A request for content is received with a selected one of the runtime pods for a specific site. The specific site is mapped to a user identified by a user identifier. The user identifier is utilized to retrieve site metadata from a site metadata server. Content is provided in response to the request with the selected runtime pod utilizing the metadata content.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for facilitating user-controlled mapping of sites and synchronization of their content. In one embodiment and by way of example, a method includes receiving a first generation request for generating a site template in a first site network. The first generation request is received at a first computing device. The method may further include generating the site template, generating a child site based on the site template, and mapping the child site to one or more of a parent site and one or more child sites within the first site network.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for facilitating user-controlled mapping of sites and synchronization of their content. In one embodiment and by way of example, a method includes receiving a first generation request for generating a site template in a first site network. The first generation request is received at a first computing device. The method may further include generating the site template, generating a child site based on the site template, and mapping the child site to one or more of a parent site and one or more child sites within the first site network.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for facilitating user-controlled management of webpage elements for dynamic customization of relevant information. In one embodiment and by way of example, a method includes receiving, in real-time, a request for performing one or more tasks relating to dynamic customization of webpage elements relating to a webpage package. The request may be received at a first computing device over a network. The method may further include performing, in real-time, the one or more tasks.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for facilitating user-controlled mapping of sites and synchronization of their content. In one embodiment and by way of example, a method includes receiving a first generation request for generating a site template in a first site network. The first generation request is received at a first computing device. The method may further include generating the site template, generating a child site based on the site template, and mapping the child site to one or more of a parent site and one or more child sites within the first site network.

Abstract: In accordance with embodiments, there are provided mechanisms and methods for providing a cloud platform for facilitating and supporting user-controlled development and maintenance of user products. In one embodiment and by way of example, a method includes developing at a product via a cloud platform facilitated by a mechanism at a first computing device, generating the product at the cloud platform, and maintaining, in real-time, the product at the cloud platform via the mechanism at the first computing device.

Abstract: A text- or data-to-speech architecture that communicates speech to a user based on data and/or input text. In an industrial automation environment, the input text can be generated by the automation system from alarm logs, notification messages, status messages, operational parameters, current alarm conditions, production numbers, work orders to be executed, planned maintenance information, and messages from other people, for example. A system is provided that includes a conversion component that receives text and converts the text into an audible format, and a speech component that receives the audible format and presents (or outputs) the text as recognizable speech. The speech component can include a text-to-speech engine that processes the audible format into recognizable speech signals that are then presented to a recipient.

Abstract: Systems and methods are provided that enable various interface applications that more efficiently communicate data to users in an industrial control system. In one aspect, an industrial automation system is provided. The system includes a base presentation component to display one or more elements of an industrial control environment. Various display items can be dynamically superimposed on the base presentation component to provide industrial control information to a user. In another aspect of the industrial automation system, a location component is provided to identify a physical or a virtual location for a user in an industrial control environment. This can include a context component to determine at least one attribute for the user in view of the physical or virtual location. A presentation component then provides information to the user based in part on the physical or virtual location and the determined attribute.

Abstract: Indexing agents and/or data brokers are leveraged to provide search query results related to manufacturing processes. The indexing agents allow different manufacturing configuration data types to be “sub-indexed,” allowing them to be easily searched. In one instance, the sub-indices can be aggregated together to create an overall index to facilitate in query searches of the configuration data. Separate indexing agents can be utilized for indexing contents of the configuration components for the human-machine interface (HMI) and control system and the like. Data brokers can be employed to facilitate in responding to query searches by indexing/searching real-time process variables (tags) and historical data in persistent storage. A search engine can then be employed to aggregate the search results and present them to a user in a selectable fashion. User selected results are then rendered in the proper format and displayed to the user.

Abstract: A system(s) and method(s) that facilitates diagnosing a HMI system and automatically applying a solution to correct and/or update the HMI system. According to a feature is an interactive diagnosis system for an human machine interface (HMI) system. The interactive diagnosis system includes a data capture component that captures HMI system information and a diagnostic component that accepts a user input relating to an HMI system and receives the HMI system information from the data capture component. The user input can be communicated through an interactive voice response system. Also included in the interactive diagnosis system is an engine component that receives the user input and based in part on the captured HMI system information selectively requests diagnostic and solution information from a data source and automatically applies the solution to the HMI system.

Abstract: A human-machine interface generation system comprises a reception component that receives a request to generate a human-machine interface relating to at least one of an industrial system, device, process, and sub-process and parameters associated with an initiator of the request. A view generation component generates the human-machine interface based at least in part upon the request and the parameters. For example, the system can further comprise a query generation component that creates a query based at least in part upon the request and the parameters and utilizes the query to extract data from a server within an industrial automation environment.