Abstract: A peripheral device workspace cloud orchestrator information handling system comprises a network interface device to receive functional capabilities for an existing peripheral device previously operatively coupled by a user to a user information handling system anchor node for a peripheral device workspace defined by a manifest of included peripheral device nodes, location, and peripheral device workspace identification value, and a user composite peripheral device workspace identifier associated with an adjustable operational configuration instructing the existing peripheral device operation, a hardware processor to execute code instructions to identify new peripheral device capabilities within a received new device orchestrated device descriptor for a new peripheral device operatively coupled to the anchor node, determine a minimum percentage of the new peripheral device capabilities matches the existing functional capabilities, and instruct the anchor node to configure the new peripheral device according t

Abstract: A peripheral device workspace cloud orchestrator executing at a cloud information handling system may comprise a network interface device to receive a user experience fingerprint associated with a user of an information handling system that has been previously operatively coupled to a previous peripheral device at a first location of a previous peripheral device workspace having operational configurations of previous peripheral device functional capabilities controlling operation of the previous peripheral device, and a hardware processor to determine for a new peripheral device node functional capabilities in a new peripheral device workspace operatively coupled to the user information handling system at a second identified location based on a user experiential compliance value to determine whether to apply operational configurations of previous peripheral device functional capabilities to the new peripheral device node and the hardware processor to execute code instructions to configure the new peripheral d

Abstract: Making a remote desktop protocol (RDP) aware of the availability of display stream compression (DSC) of a DSC device, such as a display-port monitor, at a client conserves system resources. The server may use simple encoding to directly encode any screen content using a DSC format required by the display-port monitor of the client and then send the encoded content to the client. The client need not decode the encoded content, but rather can send the encoded content directly to the appropriate display-port monitor connected or coupled to the client.

Abstract: In certain information handling system environments, physical devices connected to a client are redirected to a server or other information handling system. Read and write transaction requests to these redirected devices will use and occupy network bandwidth. Allowing the client to unmount its file system (if present) and locking its disk stack while permitting the server to load a virtual disk enumerator and file system stack for the processing of transaction requests to the virtual disk provides efficiency in the amount of network bandwidth required for any given transaction request. In such a system, the server processes overhead related to the transaction requests at the server and thus executes fewer transactions requests to the client.

Abstract: In certain information handling system environments, physical devices connected to a client are redirected to a server or other information handling system. The time to redirect a universal serial bus (USB) mass storage device may be lengthy given that the same metadata must be read several times. Arrival time of a redirected USB mass storage device may be decreased by collecting the complete metadata at the client and transmitting that complete metadata to the server. The server builds a metadata cache to store the metadata received from the client. Efficiencies are achieved by caching the complete metadata associated with the redirected device at the server instead of making repeated transactions requesting the same metadata from the client.

Abstract: Making a remote desktop protocol (RDP) aware of the availability of display stream compression (DSC) of a DSC device, such as a display-port monitor, at a client conserves system resources. The server may use simple encoding to directly encode any screen content using a DSC format required by the display-port monitor of the client and then send the encoded content to the client. The client need not decode the encoded content, but rather can send the encoded content directly to the appropriate display-port monitor connected or coupled to the client.

Abstract: In certain information handling system environments, physical devices connected to a client are redirected to a server or other information handling system. The time to redirect a universal serial bus (USB) mass storage device may be lengthy given that the same metadata must be read several times. Arrival time of a redirected USB mass storage device may be decreased by collecting the complete metadata at the client and transmitting that complete metadata to the server. The server builds a metadata cache to store the metadata received from the client. Efficiencies are achieved by caching the complete metadata associated with the redirected device at the server instead of making repeated transactions requesting the same metadata from the client.

Abstract: In certain information handling system environments, physical devices connected to a client are redirected to a server or other information handling system. Read and write transaction requests to these redirected devices will use and occupy network bandwidth. Allowing the client to unmount its file system (if present) and locking its disk stack while permitting the server to load a virtual disk enumerator and file system stack for the processing of transaction requests to the virtual disk provides efficiency in the amount of network bandwidth required for any given transaction request. In such a system, the server processes overhead related to the transaction requests at the server and thus executes fewer transactions requests to the client.