Abstract: A method for running an application via an operating system executing on a computing device is disclosed. In an embodiment, the method involves subjecting an API call to a complimentary application virtualization layer, after the API call is subjected to the complimentary application virtualization layer, subjecting the API call to a primary application virtualization layer, and after the API call has been subjected to the complimentary application virtualization layer and to the primary application virtualization layer, forwarding the API call to the operating system for processing in the kernel-space.

Abstract: Methods and systems for deploying virtualized applications are disclosed. In an embodiment, a method involves, at a client device, downloading a launcher from a virtualized application portal to the client device, running the launcher at the client device, wherein running the launcher comprises checking for a first dependency and downloading a file of the first dependency if the first dependency is not installed on the client device, after checking for the first dependency, downloading an apploader from the virtualized application portal, and running the apploader at the client device. Running the apploader involves determining a configuration of the client device and downloading virtualized application components dependent on the configuration, determining specific needs of the virtualized application and downloading components dependent on the specific needs, and starting the virtualized application on the client device.

Abstract: Systems and method for providing single sign on access to an application executing at a client device. An API request is intercepted at the client device for signing on a user of the client device for accessing the application. The API request is sent to a remote system where user credentials are determined based on the intercepted API request. The user credentials are returned to the client device where they are used to agnostically sign on the user for accessing the application.

Abstract: Systems and method for remotely satisfying API (Application Programming Interface) requests made by an application executing at a client device. At an accelerated remote operations system server remote from the client device, an intercepted API request of an application executing at the client device is received. At the accelerated remote operations system server, an API response to the API request is determined using an API. The API response is compared to a previously determined API response for the API request to determine if the API response has changed. A response is sent to the client device based on whether the API response has changed and is used to continue execution of the application at the client device.

Abstract: The invention is a method of optimizing the interaction between (i) a client, being an application such as database software, implemented on a computing device, and (ii) database server software implemented on a computing device. Query data is routed from the client to the database server software through an optimization system implemented on a computing device and then response data provided by the database server software is routed to the optimization system. The optimization system analyzes that (or later) query data and, based on that analysis, applies rules to response data provided by the database server software, in order to generate optimized response data to thereby speed up the interaction between the client and the database server software.

Abstract: Systems and methods for managing the flow of data between a client device and a data source system including a data accelerator implemented, at least in part, between the client device and the data source. The data accelerator can function to intercept queries and determine whether responses stored locally with respect to the client device can satisfy, at least in part, the request for data of the client device. If a locally stored response can satisfy the data request at least in part, the data accelerator is configured to retrieve the response from the local storage and send it to the client device. The data accelerator is also configured to modify the query based on whether response are locally stored that can satisfy the request. Specifically, the data accelerator can modify the query to only request the remaining data that is not included as part of the locally stored responses.

Abstract: A technique involves placing a data acceleration engine between an end user device and a host device. The host device provides data associated with a client application to the data acceleration engine, which provides the data to the end user device. If the data acceleration engine is on the host device, content from a datastore is served to the data acceleration engine as if the data acceleration engine were a client running the client application locally; therefore, latency normally associated with a network between the content datastore and the client device is eliminated. If the data acceleration engine is on the end user device and has received at least some data in advance of a relevant query, responses to the query also do not have latency associated with a network. The data acceleration engine can be implemented as a series of data acceleration engines between end user and host devices.

Abstract: Systems and method for providing single sign on access to an application executing at a client device. An API request is intercepted at the client device for signing on a user of the client device for accessing the application. The API request is sent to a remote system where user credentials are determined based on the intercepted API request. The user credentials are returned to the client device where they are used to agnostically sign on the user for accessing the application.

Abstract: Systems and method for remotely satisfying API requests made by an application executing at a client device. At an accelerated remote operations system server remote from the client device, an intercepted API request of an application executing at the client device is received. At the accelerated remote operations system server, an API response to the API request is determined using an API. The API response is compared to a previously determined API response for the API request to determine if the API response has changed. A response is sent to the client device based on whether the API response has changed and is used to continue execution of the application at the client device.

Abstract: A technique involves placing a data acceleration engine between an end user device and a host device. The host device provides data associated with a client application to the data acceleration engine, which provides the data to the end user device. If the data acceleration engine is on the host device, content from a datastore is served to the data acceleration engine as if the data acceleration engine were a client running the client application locally; therefore, latency normally associated with a network between the content datastore and the client device is eliminated. If the data acceleration engine is on the end user device and has received at least some data in advance of a relevant query, responses to the query also do not have latency associated with a network. The data acceleration engine can be implemented as a series of data acceleration engines between end user and host devices.

Abstract: A method may include receiving a request for a resource on a database server, the request being from a request initiator coupled to a network. Redundant data in the request is identified based on the data optimization rules, where the redundant data is unnecessary for the database server to satisfy the request for the resource. The redundant data is removed from the request based on the data optimization rules to create an optimized request. The optimized request is provided, using the network to the database server.