Abstract: Disclosed is a method including obtaining an identification of a data traffic for an antenna, associating the obtained identification to a first network identification, assigning the first network identification and a second network identification to the data traffic, performing load balancing for the data traffic using a hash algorithm, wherein the hash algorithm obtains input based on the first network identifier, and transmitting the data traffic using link aggregation.

Abstract: A secure storage for an X.509v3 digital certificate is provided (301, 302). Ports of a first and second apparatus (101, 102) are mutually authenticated (303) by using 802.1X based authentication and 802.1AR certificates. Traffic types are divided (304, 305) by an operator-configurable selector function into user plane, control plane, synchronization plane, and management plane traffic types. For Ethernet transport a virtual port is created for each traffic type, and a different MACsec secure connectivity association is created for each virtual port. For Ethernet transport an operator-programmable security policy is maintained for each traffic type. For IP transport an IPsec security association is created for each traffic type, and an operator-programmable security policy is maintained for each security association. For IP transport, TLS support may be enabled for compatibility with network management traffic. A port is repeatedly re-authenticated by an operator-definable timer value.

Abstract: A method including storing, at a first apparatus, information for identifying at least one data bearer, wherein the information includes an address and at least one further identifier for the data bearer; and wherein the data bearer is configured between s the aid first apparatus and one of a second apparatus and a third apparatus; and in response to receiving information, moving the at least one data bearer between the second apparatus and the third apparatus.

Abstract: A secure storage for an X.509v3 digital certificate is provided (301, 302). Ports of a first and second apparatus (101, 102) are mutually authenticated (303) by using 802.1X based authentication and 802.1AR certificates. Traffic types are divided (304, 305) by an operator-configurable selector function into user plane, control plane, synchronization plane, and management plane traffic types. For Ethernet transport a virtual port is created for each traffic type, and a different MACsec secure connectivity association is created for each virtual port. For Ethernet transport an operator-programmable security policy is maintained for each traffic type. For IP transport an IPsec security association is created for each traffic type, and an operator-programmable security policy is maintained for each security association. For IP transport, TLS support may be enabled for compatibility with network management traffic. A port is repeatedly re-authenticated by an operator-definable timer value.

Abstract: There are provided measures for intelligent bearer setup configuration control. Such measures exemplarily comprise detection of at least one setup requirement for setup of a bearer, and selection of a termination point for a bearer between a first network element and a second network element among a plurality of available candidate termination points on the basis of the detected at least one setup requirement. For example in a LTE/LTE-A system environment, the setup configuration of a S1 bearer between eNB and SGW can be controlled on the basis of setup requirements for an E-RAB.

Abstract: The invention relates to a method for configuring cross-connections of a radio system, and to a radio system implementing the method. The radio system comprises network elements. The network elements are operatively interconnected by means of a transmission network realized by transmission circuits. Information between the network elements is transmitted in frames that are divided into time slots. The radio system comprises at least one cross-connection unit between at least two network elements for realizing the cross-connections needed to establish the transmission circuits. While configuring the cross-connections, class-marks are allocated for transmission circuits. A class-mark comprises an application type for defining the type of the software that performs the configuration, a priority for defining the order according to which the configuration is performed, and a label for defining the name of the transmission circuit.

Abstract: The invention relates to a method for uploading a transmission network topology of a radio system and to a radio system implementing the method. The radio system comprises at least one network element and a network management system managing the network elements. The network elements are operatively interconnected by a transmission network realized by means of transmission circuits. Information between the network elements is transmitted in frames that are divided into time slots. When a transmission circuit is changed then software of the network elements marks the changed transmission circuit as changed, and the network management system is informed of the changed circuit, whereafter the software of the network element removes the marking from the changed circuits.

Abstract: The invention relates to a method for configuring cross-connections of a radio system, and to a radio system implementing the method. The radio system comprises network elements and a network management system managing the network elements. The network elements are operatively interconnected by means of a transmission network realized by transmission circuits. Information between the network elements is transmitted in frames that are divided into time slots. The radio system comprises at least one cross-connection unit between at least two network elements for realizing the cross-connections needed to establish the transmission circuits. The method comprises the following operations: uploading a transmission network topology of the radio system, and utilizing labeled transmission circuits in analyzing the fragmentation of the cross-connections, and optimizing the capacity by reconfiguring the cross-connections when fragmentation of the capacity exceeds an agreed percentage of the total capacity of a circuit.