Microsoft Technology Licensing, LLC

Home Box Office, Inc.

Makarand V Patwardhan

Vladimir Stoyanov

Joy Chik

Mahesh Sharad Lotlikar

Nadim Y Abdo

Nelly L Porter

Jesse Corrington

Costin Hagiu

Nathan J E Furtwangler

J Jordan C Parker

John Charles Dunn

Vinod Murli Mamtani

Hammad Butt

Zardosht Kasheff

Chenyin Zhong

Gaurav Daga

Brandon C Furtwangler

Sriram Sampath

Ara Bernardi

Brendan McKeon

John E Parsons, Jr

Tyler R Furtwangler

Mahadeva K Alladi

Mohamed Bouchet

The described technology is directed towards virtual input devices that take application program-directed input from automation and/or remote devices, such as over a network, instead of via actual user input via a physical device, for example. This allows an automation framework to insert input into an application program, such as for automated testing without modifying any of the application's other components. The virtual input devices may be object instances or the like that receive their input from function calls based upon the type of input and output events, e.g., to simulate keyboard input/output (I/O), mouse or other pointer I/O, voice, gesture, and other command I/O, and so forth.

Virtual input device system

The described technology is directed towards server-controlled testing and/or monitoring of a client device application program. The server loads plug-in components directed towards the testing and/or monitoring operations, and instructs the client device to couple counterpart plug-in components to the client device application program. The server's plug-in components communicate with the application program's plug-in components to run the testing and/or monitoring operations, which may be automated, send queries to the client to receive responses, and send commands to the client to take actions. The server includes dashboards for interacting with the client device. The client device includes virtual input devices that allow the server to inject input into the client application program.

Two-way remote communication system for testing a client device program

A remote access system connects a server computer with one or more client computers, where devices are connected locally at the client computers. The devices are recognized by the client computers and a device driver is provided for each connected and recognized device. A virtual driver is created at the server computer from information specific to the device, such that the virtual driver acts as an actual driver to an application on the server computer. The application through the virtual driver is able to recognize and provide commands to the connected device.

Plug and play device redirection for remote systems

The present invention extends to methods, systems, and computer program products for establishing and utilizing terminal server dynamic virtual channels. In some embodiments, a terminal server sends a new channel request to a terminal server. The client receives the new channel request and forwards the new channel request to a listener for a plug-in. The listener creates an instance of the client side plug-in and sends a channel accept to the terminal server. The terminal server receives the channel accept and creates an instance of a server side plug-in. The server and the client agree to use a unique identifier for identifying the established dynamic virtual channel. In other embodiments, data for a dynamic virtual channel is tunneled between computers over a static virtual channel.

Establishing and utilizing terminal server dynamic virtual channels

One or more universal serial bus (USB) devices are connected at a client computer. The USB devices are recognized by the client computer and a determination is made as to whether an application server computer provides functionality for one or more of the USB devices. A specific communication path is provided from the USB device to the server computer if functionality is provided by the application server computer.

USB devices in application server environments

In client-server architectures, systems and methods for XPS based printer redirection are disclosed. In an implementation, a client computing device issues a print command to print an application hosted on a server computing device. The server computing device implements a generic printer driver to emulate exact properties of a client printer driver installed in the client computing device. The generic printer driver redirects one or more calls related to printer settings to the client printer driver. The client computing device returns the printer settings which are combined with the application (to be printed) to generate an XPS file. The XPS file is redirected to a printer connected to the client computing device for printing.

Printer redirection

The present invention extends to methods, systems, and computer program products for controlling the transfer of terminal server data. In some embodiments, contending request to send terminal server data are resolved by a flow control module situated between a terminal server protocol and a transport/network protocol. The flow control module utilizes channel priorities along with amounts of previously sent data per channel to determine how to distribute bandwidth in a relatively controlled manner between contending channels. The flow control module can be configured to intercept communication between terminal server protocol and a transport/network protocol to facilitate bandwidth distribution. In other embodiments, data is simultaneously sent over multiple channels of terminal server connection. A first write operation obtains a lock on a corresponding channel but the channel lock does not prevent write operations on other channels.

Controlling the transfer of terminal server data

A workstation including a host machine and a plurality of consoles directly connected to the host machine. Each of the consoles are configured as a separate console, and each of the consoles include a respective input device adapted to receive input from a user and a respective output device adapted to provide output to the user. A method provided herein includes configuring the host machine to support a plurality of users concurrently on a plurality of consoles, and connecting each of the consoles directly to the host machine so as to enable direct communication therebetween.

Multi-console workstations concurrently supporting multiple users

User interface ('UI') redirection for a local device, such as a printer that is operatively coupled to a client, is provided by an arrangement in which a dummy driver is installed on the terminal server. When an application on the terminal server makes a call to show a UI, the dummy driver redirects the call to a process operating on the client that exposes the specific UI associated with the local device. User input to the UI indicative of preferences and/or other user-selected parameters is recorded and passed to the terminal server through the dummy driver and reported to the calling application. In an illustrative example, the terminal server and client communicate over a virtual channel using a remote desktop protocol in order to redirect print jobs to a local printer that is coupled to the client either directly or over a network such as a local area network.

Printer user interface redirection over a terminal services session

Techniques relating to enabling accessibility functionality in remote terminal session scenarios are described. In one instance, a process detects a request from an accessibility functionality regarding a display element in a remote terminal session. The process sends a query relating to the request to a component located on a computing device which generated the display element. The process also receives a response to the query.

Growing community of inventors

Redmond, WA, United States of America

Makarand V Patwardhan