Abstract: In one or more embodiments, one or more systems, one or more methods, and/or one or more processes may provide, by a first application executed by an information handling system (IHS), configuration information to a keyboard; configure, by the keyboard, a display of the keyboard with a graphic based at least on the configuration information; receive, by the keyboard, first user input associated with the graphic; provide, by the keyboard, first keyboard information to the IHS; provide, by the IHS, the first keyboard information to a second application executed by the IHS; receive, by the first application, second user input; provide, by the first application, information based at least on the second user input to the keyboard; provide, by the keyboard to the IHS, second keyboard information based at least on the information; and provide, by the IHS, the second keyboard information to the second application.

Abstract: A generic client engine can associate a transcoder process with a requested server-side application so that the transcoder process can act as an intermediary between the browser-based application and the server-side application. The transcoder process can be configured to communicate with the browser-based application using a browser-supported protocol. The transcoder process can be further configured to transcode between the browser-supported protocol and a protocol employed by the server-side application. In cases where a gateway service provides access to the server-side application, the transcoder process can also act as an intermediary between the browser-based application and the gateway service to transcode between the browser-supported protocol and a gateway protocol. In some cases, the transcoder process, and possibly the gateway service, can alternatively be located on the client device that hosts the browser-based application.

Abstract: A secure access client can be employed to enforce limitations on a user's access to a file while also allowing the user to access the file using an application of choice. To provide this functionality, the secure access client can implement an RDP client that is configured to create an RDP session with an RDP service executing on the same computing device. The RDP service can allow the secure access client to display the user interface of an application employed to open a file. The secure access client can be configured to selectively apply access limitations on a per file basis. This selective enforcement can be accomplished by only implementing a virtual channel extension to provide a particular type of access to the file when the file's access limitations would allow such access.

Abstract: A Native Client-based remote display client can efficiently perform multimedia redirection by routing un-rendered multimedia content to browser code executing outside the sandbox in which the remote display client is executed. In this way, a remote display client implemented as a Native Client module will not be limited to using the APIs available within the sandbox to render the multimedia content. The Native Client module can communicate with the browser code to provide parameters necessary for the browser code to submit a web-based request to the Native Client module via localhost to thereby obtain the multimedia content via one or more web-based communications.

Abstract: A remoting client can be configured to offload various graphics-based remoting protocol processes to the GPU to thereby free up the CPU for performing other remoting tasks. In this way, a remoting client can be executed on a client terminal that has a less powerful CPU even when a graphics-rich desktop is virtualized on the client terminal. When the remoting client receives remoting communications containing graphics display data, the remoting client can write the graphics display data to a location in memory that is accessible to the GPU and can then pass the graphics display data to the GPU for further processing. The CPU is therefore freed from having to fully process the graphics display data including from having to copy the graphics display data to a display buffer.

Abstract: A remoting client can be configured to offload various graphics-based remoting protocol processes to the GPU to thereby free up the CPU for performing other remoting tasks. In this way, a remoting client can be executed on a client terminal that has a less powerful CPU even when a graphics-rich desktop is virtualized on the client terminal. When the remoting client receives remoting communications containing graphics display data, the remoting client can write the graphics display data to a location in memory that is accessible to the GPU and can then pass the graphics display data to the GPU for further processing. The CPU is therefore freed from having to fully process the graphics display data including from having to copy the graphics display data to a display buffer.

Abstract: A secure access client can be employed to enforce limitations on a user's access to a file while also allowing the user to access the file using an application of choice. To provide this functionality, the secure access client can implement an RDP client that is configured to create an RDP session with an RDP service executing on the same computing device. The RDP service can allow the secure access client to display the user interface of an application employed to open a file. The secure access client can be configured to selectively apply access limitations on a per file basis. This selective enforcement can be accomplished by only implementing a virtual channel extension to provide a particular type of access to the file when the file's access limitations would allow such access.

Abstract: A generic client engine can associate a transcoder process with a requested server-side application so that the transcoder process can act as an intermediary between the browser-based application and the server-side application. The transcoder process can be configured to communicate with the browser-based application using a browser-supported protocol. The transcoder process can be further configured to transcode between the browser-supported protocol and a protocol employed by the server-side application. In cases where a gateway service provides access to the server-side application, the transcoder process can also act as an intermediary between the browser-based application and the gateway service to transcode between the browser-supported protocol and a gateway protocol. In some cases, the transcoder process, and possibly the gateway service, can alternatively be located on the client device that hosts the browser-based application.

Abstract: A Native Client-based remote display client can efficiently perform multimedia redirection by routing un-rendered multimedia content to browser code executing outside the sandbox in which the remote display client is executed. In this way, a remote display client implemented as a Native Client module will not be limited to using the APIs available within the sandbox to render the multimedia content. The Native Client module can communicate with the browser code to provide parameters necessary for the browser code to submit a web-based request to the Native Client module via localhost to thereby obtain the multimedia content via one or more web-based communications.

Abstract: A dispensing machine includes a visual detection system, having one or more cameras with a field of view sufficient to see a region through which a properly dispensed product is expected to travel, captures at least one image frame during the time in which the product is expected to be within the field of view. The detection system visually detects the presence of items in a dispense or vending area, determining the type of product from one or more predetermined attributes. If the correct product has not been dispensed, an exception indication is generated. In the case of a vending machine, the exception may result in a refund or credit of any amounts actually paid.

Abstract: A system for communicating with a device is disclosed. The system includes a client configured to issue a request. The request represents an operation that the client wishes to have the device perform. The system further includes a server configured to receive the request from the client and translate the request into a format that is decipherable by the device, establish a logical connection with the device via the client, and forward the translated request to the device via the logical connection. The device acts on the translated request to effect the operation.

Abstract: The present invention provides a system for booting an intelligent device with an embedded-type operating system obtained through an external interface disposed in the intelligent device, wherein the system includes an initialization module stored in a read-only memory provided in the intelligent device, the initialization module being executed in a processor disposed in the intelligent device and connecting to an external location through the external interface, and a server having a memory media which stores a boot agent module and an embedded-type operating system at the external location, the server sending the boot agent module to the intelligent device through the connection in response to a request from the initialization module, wherein the boot agent module is loaded into a runtime memory in the intelligent device and executed by the processor, the boot agent module then retrieving an embedded-type operating system image from the external location in the sever, whereupon the embedded-type operating s

Abstract: A system for booting an computing device with a windowing operating system obtained from an external memory media via an external interface, wherein the system includes an initialization module stored in a read-only memory provided in the computing device, the initialization module being executed in a processor disposed in the computing device and establishing a data connection to the external memory media through the external interface, and an external device in which the external memory media is disposed, the external memory media storing a windowing operating system at an external location, the external device sending the windowing operating system image from the external memory media to the computing device via the external interface in response to a request from the computing device, the request being based on memory geometry information of the external memory media, wherein the windowing operating system image is received by the computing device, loaded into a runtime memory in the computing device and

Abstract: The present invention discloses a method and system for specifying and executing computing tasks in a preboot execution environment in general, and, in particular, a method and system for generalized imaging utilizing a language agent and encapsulated object oriented polyphase preboot execution and specification language. The target customization is advantageously accomplished by encapsulating target dependent parameters in specification files. The target specific parameters are resolved at appropriate execution time when the parameter information becomes available. Such approach simplifies specification of complex tasks to a merely few lines of code. The approach of the present invention nevertheless affords reliable, robust, and accurate performance, because the pertinent parametric information are resolved only when they can be accurately ascertained. Furthermore, the specification encapsulations are themselves a part of the image set, providing self-describing images with self-contained imaging methods.

Abstract: The present invention discloses a method for specifying and executing computing tasks in a preboot execution environment in general, and, in particular, an encapsulated object oriented polyphase preboot execution and specification language. The language is both a specification generator and interpreter. As a specification generator, the language allows encapsulation of parameters in specification files. Thus, the target customization of execution behavior is advantageously accomplished by encapsulating target dependent parameters in specification files, as the target specific parameters are best resolved at appropriate execution time when the parameter information becomes available. Such approach simplifies specification of complex tasks to a merely few lines of code, but, nevertheless affords reliable, robust, and accurate performance, since the pertinent parametric information are resolved only when they can be accurately ascertained.