Abstract: A method for preparing a palladium-gold alloy layer on a substrate by electrodepositing said coating surface with an aqueous electroplating solution comprising of an aqueous solution of a soluble palladium compound and a soluble gold complex, wherein the ratio of gold to palladium to in the solution is from 5 to 40 w/w %. Also taught is a substrate such as a vanadium or vanadium alloy gas separation membrane coated with a palladium-gold alloy layer.

Abstract: A method for preparing a palladium-gold alloy layer on a substrate by electrodepositing said coating surface with an aqueous electroplating solution comprising of an aqueous solution of a soluble palladium compound and a soluble gold complex, wherein the ratio of gold to palladium to in the solution is from 5 to 40 w/w %. Also taught is a substrate such as a vanadium or vanadium alloy gas separation membrane coated with a palladium-gold alloy layer.

Abstract: A mobile network entity, such as Mobility Management Entity MME, is for the support of Mobile-Terminated MT Data Delivery via an interface such as the T6a interface between a Service Capability Exposure Function SCEF and the mobile network entity, towards a User Equipment UE using extended idle mode DRX served by the mobile network entity is configured to receive from the SCEF a MT Data Delivery Request including information indicating a time frame within which a MT Data Delivery Response is awaited by the SCEF.

Abstract: An example technique is provided for receiving, by a base station in a wireless network, a priority map that indicates a mapping of a first set of priority classes for one or more radio bearers provided between the base station and a relay user device and a second set of priority classes for one or more proximity services (ProSe) sidelink logical channels provided between the relay user device and a remote user device, and allocating (or scheduling), by the base station based on the priority map, wireless resources to the relay user device to transmit data to the remote user device for one or more of the ProSe sidelink logical channels.

Abstract: A method for preparing a palladium-gold alloy layer on a substrate by electrodepositing said coating surface with an aqueous electroplating solution comprising of an aqueous solution of a soluble palladium compound and a soluble gold complex, wherein the ratio of gold to palladium to in the solution is from 5 to 40 w/w %. Also taught is a substrate such as a vanadium or vanadium alloy gas separation membrane coated with a palladium-gold alloy layer.

Abstract: An example technique is provided for receiving, by a base station in a wireless network, a priority map that indicates a mapping of a first set of priority classes for one or more radio bearers provided between the base station and a relay user device and a second set of priority classes for one or more proximity services (ProSe) sidelink logical channels provided between the relay user device and a remote user device, and allocating (or scheduling), by the base station based on the priority map, wireless resources to the relay user device to transmit data to the remote user device for one or more of the ProSe sidelink logical channels.

Abstract: A mobile network entity, such as Mobility Management Entity MME, is for the support of Mobile-Terminated MT Data Delivery via an interface such as the T6a interface between a Service Capability Exposure Function SCEF and the mobile network entity, towards a User Equipment UE using extended idle mode DRX served by the mobile network entity is configured to receive from the SCEF a MT Data Delivery Request including information indicating a time frame within which a MT Data Delivery Response is awaited by the SCEF.

Abstract: In one embodiment, the method includes encrypting, at a device, data with a first key, and forming a message that includes a device identifier and the encrypted data. The device identifier identifies the device. A signaling message is formed that includes a class identifier, the message and an action code. The class identifier identifies a group of devices to which one or more devices belong. The action code indicates the type of data, and may be part of the message. The signaling message is sent to a network, for example, a wireless network. The wireless network identifies and routes the message portion of the signaling message based on the class identifier. And, using the class identifier and perhaps a device identifier, the wireless network may signal the device to change an operating parameter.

Abstract: In one embodiment, the method includes encrypting, at a device, data with a first key, and forming a message that includes a device identifier and the encrypted data. The device identifier identifies the device. A signaling message is formed that includes a class identifier, the message and an action code. The class identifier identifies a group of devices to which one or more devices belong. The action code indicates the type of data, and may be part of the message. The signaling message is sent to a network, for example, a wireless network. The wireless network identifies and routes the message portion of the signaling message based on the class identifier. And, using the class identifier and perhaps a device identifier, the wireless network may signal the device to change an operating parameter.

Abstract: In a method for controlling access to a local network via a small wireless cell in a wireless network, local network access control information is received at the small wireless cell, and the small wireless cell controls access to the local network by the user based on the local network access control information. The access control information is indicative of whether a user is permitted to access the local network through the small wireless cell, and is independent of wireless network access control information indicative of whether the user is permitted to access the wireless network.

Abstract: The embodiments relate to a system and/or method for handover within a heterogeneous network. The system for handing over a first mobile station between cells includes a small cell and a macro cell. The system includes a small cell gateway configured to serve a plurality of small cells. At least one of the plurality of small cells is a restricted small cell that restricts access to a limited number of mobile stations. The small cell gateway is configured to receive access information for the restricted small cell. The small cell gateway is configured to select a small cell among the plurality of small cells for serving the first mobile station in response to a handover request from a macro base station associated with the macro cell. The small cell gateway does not select the restricted small cell if the first mobile station is not included in the access information.

Abstract: In a method for performing handover of a user equipment, a small cell base station formats a handover request message for the user equipment. The handover request message includes permission information of the user equipment, including LIPA permission information.

Abstract: In a method for controlling access to a local network via a small wireless cell in a wireless network, local network access control information is received at the small wireless cell, and the small wireless cell controls access to the local network by the user based on the local network access control information. The access control information is indicative of whether a user is permitted to access the local network through the small wireless cell, and is independent of wireless network access control information indicative of whether the user is permitted to access the wireless network.

Abstract: In one embodiment, the method includes encrypting, at a device, data with a first key, and forming a message that includes a device identifier and the encrypted data. The device identifier identifies the device. A signaling message is formed that includes a class identifier, the message and an action code. The class identifier identifies a group of devices to which one or more devices belong. The action code indicates the type of data, and may be part of the message. The signaling message is sent to a network, for example, a wireless network. The wireless network identifies and routes the message portion of the signaling message based on the class identifier. And, using the class identifier and perhaps a device identifier, the wireless network may signal the device to change an operating parameter.

Abstract: In a method of tracking a user in a communication network supporting a broadcast-multicast service, the network classifies groups of users into tracking areas. Movement of a user may be tracked as the user crosses a boundary between two tracking areas in the network. The method may enable a balance to be achieved between use of uplink overhead and the level or granularity of tracking desired, so as to conserve radio resources.

Abstract: An apparatus for extruding a poly(arylene ether) blend comprises a continuous screen changer disposed between a die and an extruder. The continuous screen changer comprises an extruder block, an outlet block which is in fluid communication with the extruder block, a reel of filtering means which is disposed to allow passage of the screen through the extruder block and out the outlet block; and, a means for control of screen advancement through the extruder block and outlet block.

Abstract: An apparatus for extruding a poly(arylene ether) blend comprises a continuous screen changer disposed between a die and an extruder. The continuous screen changer comprises an extruder block, an outlet block which is in fluid communication with the extruder block, a reel of filtering means which is disposed to allow passage of the screen through the extruder block and out the outlet block; and, a means for control of screen advancement through the extruder block and outlet block.

Abstract: The method provides for a first network controller, operating according to a first radio technology, to form and send a relay message to a second network controller, operating according to a different, second radio technology. The relay message includes an embedded message for the second network controller. The embedded message may be a transition message requesting transition of a packet switched call for a mobile station handled by the first network controller to a call for the mobile station handled by the second network controller. The method further provides selection of another wireless element for service at a wireless unit, using a current wireless element. A wireless unit receives a message identifying at least one other wireless element, available to the wireless unit and to which a wireless element currently in communication with the wireless unit is also in communication with and the wireless unit selects another wireless element for possible future service based on the message.