Abstract: Automated application modeling for application virtualization (auto-modeling) may be incorporated into an application installer and/or other suitable component of a computer operating system. Auto-modeling may be performed by an auto-modeling agent. The auto-modeling agent may employ one or more of multiple auto-modeling strategies. The auto-modeling agent may assess one or more of a particular application, application installation package and/or application environment in order to determine a suitable auto-modeling strategy. Auto-modeling strategies may include active auto-modeling and passive auto-modeling. Active auto-modeling strategies may require at least partial installation and/or execution of the application to be modeled, whereas passive auto-modeling may generate corresponding auto-modeling data independent of application installation and/or execution, for example, by obtaining suitable data from a corresponding application installation package.

Abstract: An integration system is disclosed that provides a virtual desktop integration with terminal services. A client computer is connected to one the virtual desktops operating in a server. The client computer examines information contained in a remote desktop protocol (RDP) compliant packet supplied by the server. The client computer connects to one of the many virtual desktops based on information. Use of the information enables integration of the virtual desktop with the existing terminal session deployment model. Client devices can establish a session using a single network name and can be appropriately directed to either a virtual desktop or terminal session.

Abstract: Terminal sessions providing remote access to functionality may be isolated from each other, as well as from the server system space, by being placed in system virtualization instances. Applications associated with terminal sessions may be allocated to system virtualization instances. In particular, system virtualization instances may be pre-instantiated, and applications may be dynamically allocated to the system virtualization instances, for example, according to a virtualization instance policy. The system virtualization instances may provide, in particular, an ability for terminal session components and associated applications to create, read, update and delete resources in a global name space of a host server without conflict, collision or other interference with each other or other server components.

Abstract: Described are systems and methods for loading mirror drivers in remote sessions of a remote server that enables remote sessions at various computing or client devices to access the mirror drivers. The mirror drivers are video display drivers which receives video rendering output and/or graphics output from a graphics device interface. Such video rendering output and/or graphics output received may be a mirror image of the video rendering output and/or graphics output send to display drivers for displaying on monitor.

Abstract: The present invention is directed to restricting device access per session. Entries in a device list are configured to store session ID values in addition to values for other device properties. A session ID value for a device can be set to the session ID value of a (e.g., RDP) session that registered the device such that the subsequent transfer of device related information for the device can be restricted to processes in the session. When a request for device related information is received from a process, an access check is performed by at least comparing a session ID value for the process to a session ID value stored in a device entry for the device. When the access check is successful, for example, when session ID values match, access to the requested device related information can be permitted.

Abstract: 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.

Abstract: Systems and methods for configuring sessions and terminals for binding in an extensible manner are disclosed. In one implementation, a terminal is created in response to notification of an incoming connection. A session is also created. The terminal and session are bound together for operation. This implementation may be instantiated as computer-executable instructions defined on a computer-readable media.

Abstract: Systems and methods are described for providing security through sessions. In an implementation, a method includes initiating a session, by an operating system, in which operating system services are executable and initiating another session, by the operating system, in which a user-interactive application is executable.

Abstract: Systems and methods are described for providing security through sessions. In an implementation, a method includes initiating a session, by an operating system, in which operating system services are executable and initiating another session, by the operating system, in which a user-interactive application is executable.