Abstract: Inter-alia, a method is disclosed comprising: receiving data transmissions indicative of data to be transmitted via the wireless communication network; obtaining physical channel information indicative of one or more parameters representing channel information and/or quality information associated with at least one physical channel that can be used for transmitting the data transmissions to one or more mobile devices of the wireless communication network; scheduling the data transmissions based at least partially on the physical channel information, wherein a tentative scheduling grant is determined for at least a part of the data transmissions to be encoded tentatively; encoding at least a part of the data transmissions, wherein the encoding is performed and/or controlled in a tentative fashion upon reception of the data transmissions, wherein the data transmissions are encoded based on the tentative scheduling grant; and outputting the encoded data transmissions upon completion of the encoding.

Abstract: Apparatuses and methods in a communication system are provided. The solution comprises operating a radio access network, where the radio access network comprises two or more resource tiers, each tier having different latency/timing requirements. The resource allocation for the radio access network is realised (200) with two or more control loops, where each control loop is configured to allocate resources with different latency requirements, and control resources between the tiers. Resources of the inmost tier are controlled (202) by an inmost control loop with lowest latency resource allocation, and resources of the outer tiers are controlled (204) by one or more outer control loops for less latency critical resource allocation, each outer control loop having less critical latency requirement compared to loops closer to the inmost loop.

Abstract: It is provided a method, including monitoring if an information on a first pairing condition is received, wherein the first pairing condition indicates that a first flow is suitable for pairing under the first pairing condition; checking, if the information on the first pairing condition is received, for at least one of one or more stored second pairing conditions, if the respective stored second pairing condition matches the first pairing condition, wherein each of the one or more second pairing conditions indicates that a respective second flow different from the first flow is suitable for the pairing under the respective second pairing condition; pairing the first flow and one of the second flows if the second pairing condition related to the one of the second flows matches the first pairing condition.

Abstract: Inter-alia, a method is disclosed comprising: receiving data transmissions indicative of data to be transmitted via the wireless communication network; obtaining physical channel information indicative of one or more parameters representing channel information and/or quality information associated with at least one physical channel that can be used for transmitting the data transmissions to one or more mobile devices of the wireless communication network; scheduling the data transmissions based at least partially on the physical channel information, wherein a tentative scheduling grant is determined for at least a part of the data transmissions to be encoded tentatively; encoding at least a part of the data transmissions, wherein the encoding is performed and/or controlled in a tentative fashion upon reception of the data transmissions, wherein the data transmissions are encoded based on the tentative scheduling grant; and outputting the encoded data transmissions upon completion of the encoding.

Abstract: Apparatuses and methods in a communication system are provided. The solution comprises operating a radio access network, where the radio access network comprises two or more resource tiers, each tier having different latency/timing requirements. The resource allocation for the radio access network is realised (200) with two or more control loops, where each control loop is configured to allocate resources with different latency requirements, and control resources between the tiers. Resources of the inmost tier are controlled (202) by an inmost control loop with lowest latency resource allocation, and resources of the outer tiers are controlled (204) by one or more outer control loops for less latency critical resource allocation, each outer control loop having less critical latency requirement compared to loops closer to the inmost loop.

Abstract: Embodiments can provide an apparatus, a method and/or a computer program for routing data packets in a radio access network. The apparatus 10 comprises means for receiving 12 a data packet 804 from a source network node, the data packet comprises a data packet header and a data packet payload. The apparatus 10 further comprises means for inspecting 14 the data packet. The means for inspecting 14 is operative to perform a first packet inspection on the data packet header to determine information on a source or a destination of the data packet from the data packet header, and the means for inspecting 14 is operative to perform a second packet inspection on the data packet payload based on the information on the source or the destination of the data packet to determine information on an identification of the destination of the data packet.

Abstract: A concept for balancing a load in a mobile communication network, comprising receiving 130 receive data from a radio transceiver using a first interface and determining 140 a first receive data packet and a second receive data packet from the receive data, the first receive data packet and the second receive data packet being associated to different services. The concept comprises forwarding 150 the first receive data packet to a first processing unit using a second interface, and forwarding the second receive data packet to a second processing unit using the second interface.

Abstract: It is proposed a method for operating a radio communication network or a network element thereof, comprising the steps of: determining (2) a bearer to be processed in the radio communication network; selecting (4) a baseband unit, BBU, out of a plurality of BBUs, which satisfies at least one property of the bearer; and placing (8) the bearer on the selected BBU for processing.

Abstract: The invention refers to a method (33) for operating a wireless communication network (11) or a network element (13) thereof, the network (11) comprising a plurality of baseband processing devices (13). In order to allow for performing baseband processing tasks by multiple cooperating baseband processing devices (13) such that the real time constraints are met, it is proposed that the method (33) comprise determining (39) a delay metric (RTT_BBU) that depends on a network delay between the network element (13) and at least one baseband processing device (13) of the plurality of baseband processing devices (13), wherein the delay metric (RTT_BBU) is determined before an event (e) occurs that triggers allocation or reallocation of processing resources of the at least one baseband processing device (13), and selecting (55, 65) the at least one baseband processing device of the plurality of baseband processing devices for remote processing depending on the delay metric (RTT_BBU).

Abstract: Embodiments relate to a baseband signal processing cluster of a wireless communication network, the baseband signal processing cluster comprising baseband signal processing units, wherein at least one of the baseband signal processing units is coupled to at least one remote radio head of the wireless communication network and comprises a unit-specific processing resource management entity operable to manage a processing resource allocation within its associated baseband signal processing unit, an intra-cluster processing resource management entity coupled to at least one of the unit-specific processing resource management entities and operable to manage a processing resource allocation among the baseband signal processing units, and an inter-cluster processing resource management entity coupled to the intra-cluster processing resource management entity and operable to exchange information with at least one remote inter-cluster processing resource management entity of a remote baseband signal processing cluste

Abstract: The present disclosure relates to a baseband processing assembly (100, 200, 300) for processing signals of at least one remote radio head (104), the at least one remote radio head (104) serving a radio cell (105) of a cellular communication system, the baseband processing assembly (100, 200, 300) comprising a set of user packet schedulers (107A-M) and a cell packet scheduler (109), wherein the cell packet scheduler (109) is assigned to the radio cell (105), wherein the set of user packet schedulers (107A-M) are assigned to a group of users (101A-N) associated to the radio cell (105), wherein the cell packet scheduler (109) and a first user packet scheduler (107A-M) of the set of user packet schedulers (107A-M) are operable to mutually exchange data for providing resource assignment information and establishing a channel (102) with a first user (101A-N) of the group of users using the resource assignment information.

Abstract: It is proposed a method for operating a radio communication network or a network element thereof, comprising the steps of: determining (2) a bearer to be processed in the radio communication network; selecting (4) a base-band unit, BBU, out of a plurality of BBUs, which satisfies at least one property of the bearer; and placing (8) the bearer on the selected BBU for processing.

Abstract: The present disclosure relates to a (100, 200, 300) for processing signals of at least one remote radio head (104), the at least one remote radio head (104) serving a radio cell (105) of a cellular communication system, the baseband processing assembly (100, 200, 300) comprising a set of user packet schedulers (107A-M) and a cell packet scheduler (109), wherein the cell packet scheduler (109) is assigned to the radio cell (105), wherein the set of user packet schedulers (107A-M) are assigned to a group of users (101A-N) associated to the radio cell (105), wherein the cell packet scheduler (109) and a first user packet scheduler (107A-M) of the set of user packet schedulers (107A-M) are operable to mutually exchange data for providing resource assignment information and establishing a channel (102) with a first user (101A-N) of the group of users using the resource assignment information.

Abstract: Embodiments relate to a baseband processing apparatus (200) for processing baseband signals to or from at least one remote radio head (204), the at least one remote radio head (204) serving a radio cell of a cellular communication system, the baseband processing apparatus (200) comprising: an interface (208) to connect the baseband processing apparatus (200), as a first node (200-1) of a network (300), to a further baseband processing apparatus as a second node (200-2) of the network (300); a plurality of dedicated user data processors (210; 410; 420), wherein each is operable to process user specific data of first users being associated to the radio cell, the processing of the user specific data of the first users leading to a processing load of the first node (200-1); and a load balancer (212) operable to exchange load information with a load balancer of the second node (200-2) via the interface (208) and to distribute processing tasks between the plurality of dedicated user data processors (210; 410; 420)

Abstract: The invention refers to a method (33) for operating a wireless communication network (11) or a network element (13) thereof, the network (11) comprising a plurality of baseband processing devices (13). In order to allow for performing baseband processing tasks by multiple cooperating baseband processing devices (13) such that the real time constraints are met, it is proposed that the method (33) comprise determining (39) a delay metric (RTT_BBU) that depends on a network delay between the network element (13) and at least one baseband processing device (13) of the plurality of baseband processing devices (13), wherein the delay metric (RTT_BBU) is determined before an event (e) occurs that triggers allocation or reallocation of processing resources of the at least one baseband processing device (13), and selecting (55, 65) the at least one baseband processing device of the plurality of baseband processing devices for remote processing depending on the delay metric (RTT_BBU).

Abstract: Embodiments relate to a baseband signal processing cluster (100) of a wireless communication network, the baseband signal processing cluster (100) comprising a plurality of baseband signal processing units (110), wherein at least one of the baseband signal processing units (110) is coupled to at least one remote radio head of the wireless communication network and comprises a unit-specific processing resource management entity (120) operable to manage a processing resource allocation within its associated baseband signal processing unit (110), an intra-cluster processing resource management entity (130) coupled to at least one of the unit-specific processing resource management entities (120) and operable to manage a processing resource allocation among the plurality of baseband signal processing units (100), and an inter-cluster processing resource management entity (140) coupled to the intra-cluster processing resource management entity (130) and operable to exchange information with at least one remote int

Abstract: Embodiments can provide an apparatus, a method and/or a computer program for routing data packets in a radio access network. The apparatus 10 comprises means for receiving 12 a data packet 804 from a source network node, the data packet comprises a data packet header and a data packet payload. The apparatus 10 further comprises means for inspecting 14 the data packet. The means for inspecting 14 is operative to perform a first packet inspection on the data packet header to determine information on a source or a destination of the data packet from the data packet header, and the means for inspecting 14 is operative to perform a second packet inspection on the data packet payload based on the information on the source or the destination of the data packet to determine information on an identification of the destination of the data packet.

Abstract: Embodiments relate to a baseband processing apparatus (200) for processing baseband signals to or from at least one remote radio head (204), the at least one remote radio head (204) serving a radio cell of a cellular communication system, the baseband processing apparatus (200) comprising: an interface (208) to connect the baseband processing apparatus (200), as a first node (200-1) of a network (300), to a further baseband processing apparatus as a second node (200-2) of the network (300); a plurality of dedicated user data processors (210; 410; 420), wherein each is operable to process user specific data of first users being associated to the radio cell, the processing of the user specific data of the first users leading to a processing load of the first node (200-1); and a load balancer (212) operable to exchange load information with a load balancer of the second node (200-2) via the interface (208) and to distribute processing tasks between the plurality of dedicated user data processors (210; 410; 420)

Abstract: Disclosed is a method for triggering retransmission in a multicast system, including a base station eNB setting a retransmission condition based on a channel state indication and transmitting the set retransmission condition to a user equipment UE; and the UE comparing the current channel state indication of the UE with the received retransmission condition when receiving an error block, and feeding back a NACK signaling to the eNB trigger a retransmission when the retransmission condition is satisfied. The method according to the present invention is to restrict the trigger of the NACK signaling, by setting the condition of the UE feeding back the NACK signaling when the UE received the error block. Then the feedback signaling on the uplink channel would be restricted, and the retransmission probability would be limited in an appropriate region as in Rel 6 HSDPA, therefore the optimal ratio of efficiency over power would be achieved.

Abstract: A concept for balancing a load in a mobile communication network, comprising receiving 130 receive data from a radio transceiver using a first interface and determining 140 a first receive data packet and a second receive data packet from the receive data, the first receive data packet and the second receive data packet being associated to different services. The concept comprises forwarding 150 the first receive data packet to a first processing unit using a second interface, and forwarding the second receive data packet to a second processing unit using the second interface.