Aspects of the subject disclosure may include, for example, receiving, from a streaming application, a listing of media content items provided by the streaming application to a first device of a first user, determining a priority set of the media content items of the listing of media content items according to relative demand profiles of a plurality of media content items, for each priority media content item of the priority set of the media content items, providing the priority media content item to an edge server of a set of edge servers accessible to the first device, updating edge server location information associated with the priority media content item, and providing the edge server location information to the streaming application. Other embodiments are disclosed.

Systems, methods, and computer-readable media for porting locally processed media data with low latency to a remote client device via various wireless links are provided. In one example embodiment, a transceiver module may include a local network interface and a controller that may receive a client control signal from a client device over a wireless local area network via the local network interface, transmit a media control signal based on the client control signal to a media device, receive media data based on the media control signal from the media device, and transmit to the client device over the wireless local area network via the local network interface client data based on the media data and a low-latency compression technique. The receipt of the media data and transmission of the client data may be accomplished with substantially no detectable latency. Additional embodiments are also provided.

Systems, methods, and computer-readable media for porting locally processed media data with low latency to a remote client device via various wireless links are provided. In one example embodiment, a transceiver module may include a local network interface and a controller that may receive a client control signal from a client device over a wireless local area network via the local network interface, transmit a media control signal based on the client control signal to a media device, receive media data based on the media control signal from the media device, and transmit to the client device over the wireless local area network via the local network interface client data based on the media data and a low-latency compression technique. The receipt of the media data and transmission of the client data may be accomplished with substantially no detectable latency. Additional embodiments are also provided.

A method and apparatus for secure transfer and playback of multimedia content enables the secure transfer of multimedia content from a digital video recorder (DVR) to a personal computer (PC) and further to a handheld device. A DVR determines which devices on a Local Area Network (LAN) are authorized to share and/or retrieve content from the DVR. The DVR receives a connection request from a PC on the LAN, authorizes the connection request and establishes a secure connection between the DVR and the PC. Once the secure connection is established, the DVR receives a request for multimedia content from the PC, prepares the multimedia content for transfer and transfers the multimedia content to the PC.

A method and apparatus for secure transfer and playback of multimedia content enables the secure transfer of multimedia content from a digital video recorder (DVR) to a personal computer (PC) and further to a handheld device. A DVR determines which devices on a Local Area Network (LAN) are authorized to share and/or retrieve content from the DVR. The DVR receives a connection request from a PC on the LAN, authorizes the connection request and establishes a secure connection between the DVR and the PC. Once the secure connection is established, the DVR receives a request for multimedia content from the PC, prepares the multimedia content for transfer and transfers the multimedia content to the PC.

A computational instance may includes a set of computing devices and a configuration management database (CMDB), wherein the CMDB contains a representation of a service deployed on a managed network, wherein the representation of the service includes metadata, service group membership, and an entry point, and wherein the computational instance is configured to: receive an instruction to export the representation of the service to a file; copy, to a metadata object in the file, the metadata; determine a hierarchical subset of the service groups that are related to the service; write, to one or more service group objects in the file, the hierarchical subset of the service groups; determine, from a list of entry points of the managed network, that the entry point is of the service; and write, to an entry point object in the file, the entry point.

A computational instance may includes a set of computing devices and a configuration management database (CMDB), wherein the CMDB contains a representation of a service deployed on a managed network, wherein the representation of the service includes metadata, service group membership, and an entry point, and wherein the computational instance is configured to: receive an instruction to export the representation of the service to a file; copy, to a metadata object in the file, the metadata; determine a hierarchical subset of the service groups that are related to the service; write, to one or more service group objects in the file, the hierarchical subset of the service groups; determine, from a list of entry points of the managed network, that the entry point is of the service; and write, to an entry point object in the file, the entry point.

A microelectronic device comprises pillar structures extending vertically through an isolation material, conductive lines electrically coupled to the pillar structures, contact structures between the pillar structures and the conductive lines, and interconnect structures between the conductive lines and the contact structures. The conductive lines comprise one or more of titanium, ruthenium, aluminum, and molybdenum. The interconnect structures comprise a material composition that is different than one or more of a material composition of the contact structures and a material composition of the conductive lines. Related memory devices, electronic systems, and methods are also described.

A microelectronic device comprises pillar structures extending vertically through an isolation material, conductive lines electrically coupled to the pillar structures, contact structures between the pillar structures and the conductive lines, and interconnect structures between the conductive lines and the contact structures. The conductive lines comprise one or more of titanium, ruthenium, aluminum, and molybdenum. The interconnect structures comprise a material composition that is different than one or more of a material composition of the contact structures and a material composition of the conductive lines. Related memory devices, electronic systems, and methods are also described.

In one embodiment, a method includes receiving a stored copy request indicating data and including a request identifier, scheduling publication of the data to an object store, and sending a subscription request indicating the data and the request identifier to the object store. In another embodiment, a method includes receiving a publication request indicating data to be copied, wherein the publication request is a recording request indicating a channel and a timespan, receiving one or more subscription requests for the data, receiving the data, and generating a copy of the data for each subscription request.