Abstract:
A method for information interaction under small cell deployment, includes: a master evolved node B adding a candidate secondary evolved node B for a user equipment (S10); the master evolved node B interacting local home network information with the candidate secondary evolved node B via an inter-evolved node B interface (S20); the master evolved node B determining whether to use the candidate secondary evolved node B to provide the user equipment with a dual connectivity service (S30). The embodiments of the present document can provide a guarantee for selecting a standalone gateway to support a selected Internet Protocol (IP) traffic offload at local network (SIPTO@LN) service aiming at the dual connectivity service feature under small cell deployment. The embodiments of the present document further disclose an evolved node B working under small cell deployment
Abstract:
The present disclosure provides a service configuration method applied to an optical network unit, including: mapping initial service configuration data to at least one first managed entity at a User Network Interface side under the Management and Control Interface Protocol, and generating first service configuration information of the User Network Interface side; sending the first service configuration information to an optical line terminal for generating second service configuration information of an Access Node Interface side by the optical line terminal according to the first service configuration information; and receiving the second service configuration information sent by the optical line terminal, and performing service configuration according to the first service configuration information and the second service configuration information. The present disclosure further provides a service configuration method applied to the optical line terminal, the optical network unit, the optical line terminal and a computer-readable medium.
Abstract:
A method for online switching of an operation mode of an ONT comprises: receiving an OMCI message in an online state by the ONT, wherein the OMCI message carries an indication message for switching the operation mode; and switching the operation mode according to the indication message by the ONT. The above-mentioned method realizes changing of an operation mode of an ONT in real-time in an online state based on the GPON standard, so that the ONT can flexibly operate in a gateway mode or a network bridge mode, and an operator management system only needs to change the operation mode of the ONT through a standard OMCI message according to a local network requirement.
Abstract:
A method and a base station for processing an SIPTO (Selected IP Traffic Offload) connection, the method includes: when a terminal is handed over from a source SeNB (Secondary eNB) to a destination SeNB, receiving, by an MeNB (Master eNB), an interface message from the destination SeNB (11), herein the source SeNB supports a collocated L-GW (Local Gateway); and when a handover success acknowledgement message sent by the destination SeNB is received, triggering, by the MeNB, the source SeNB to notify the L-GW to release an SIPTO@LN (Selected IP Traffic Offload at Local Network) connection (12). Through the embodiments of the present document, the release of the SIPTO@LN connection in a collocated L-GW scenario under a small base station environment can be effectively implemented.
Abstract:
A data multi-stream transmission method and device are provided. The method includes that: a sending terminal determines an offloading way of offloading the Protocol Data Unit (PDU) data in a Packet Data Convergence Protocol (PDCP) layer according to an offloading strategy; the sending terminal offloads all or part of the PDU data as offloading data from a first connection to a second connection in the offloading way, wherein the first connection and the second connection are both connections between the sending terminal and a receiving terminal; the sending terminal implements a data multi-stream processing on the offloading data in the PDCP layer, forwards the processed offloading data to a low-level layer for processing, sends the other PDU data except for the offloading data to the receiving terminal through the first connection and the processed offloading data to the receiving terminal through the second connection.
Abstract:
Methods for switching an eNB by a user equipment, eNBs and user equipments relate to a mobile communication system deployed in a heterogeneous network. The embodiments of the present disclose a method for switching an eNB by a UE, including: when a master eNB of the UE in dual connectivity is switched, a target eNB determining that the UE keeps a connection and configuration with a secondary eNB; and the target eNB establishing a connection with the UE when the UE keeps the connection and configuration with the secondary eNB. The embodiments of the present disclosure further disclose other three methods for switching the eNB by the UE and corresponding eNBs and user equipments.
Abstract:
A method and an eNB for coordinated multi-stream transmission of data are described, which relate to mobile communication systems. The method includes, in a process of undertaking an offloaded bearer data transmission service of a user equipment (UE) for a master eNB, a secondary eNB selected as an offloading node transmitting offloaded bearer status information to the master eNB, and the master eNB adjusting an offloading strategy for the secondary eNB according to the offloaded bearer status information of the secondary eNB. The method and eNB provide a scheme of high rate joining data transmission services for the UE and are applicable to various user plane architectures and Xn interfaces and able to provide excellent joining data transmission services for the UE at high speed and reliably.
Abstract:
Disclosed are a handover method, a master evolved NodeB (MeNB) and a secondary evolved NodeB (SeNB), wherein, the method is applied to perform a handover on a MeNB for a user equipment (UE) in a multi-connection scenario in which the UE has connections with both a master evolved NodeB (MeNB) and a secondary evolved NodeB (SeNB), including: a source MeNB initiating a handover, and sending a handover command to the UE after receiving a corresponding response, instructing the UE to perform the handover on the MeNB via the handover command, and remaining a connection with the SeNB; after the UE successfully accesses a destination MeNB, the source MeNB or the destination MeNB sending a handover instruction message to the SeNB connected with the UE, the SeNB connected with the UE establishing an association with the destination MeNB according to the handover instruction message.
Abstract:
A method for implementing dual connectivity includes: a first base station which a user equipment accesses completing related management of a connection of the user equipment in a second base station through a dual connectivity management interface between the present base station and second base station, thereby realizing dual connectivity of the user equipment to the first base station and the second base station. The base station includes a management module, configured to: when the present base station serves as the first base station which the user equipment accesses, complete the related management of the connection of the user equipment in the second base station through the dual connectivity management interface; an acceptance module, configured to: when serving as the second base station, accept related management of the first base station for the connection of the user equipment in the present base station through the dual connectivity management interface.
Abstract:
A method and device for realizing data transmission, including: when a starting condition of a timer of a packet data convergence protocol (PDCP) of a data receiving side is satisfied, starting the timer of the PDCP of the data receiving side, and receiving and reordering data within a duration of the timer; and when a stopping condition of the timer of the PDCP of the data receiving side is satisfied, stopping the timer, and delivering to an upper layer the reordered data that has been processed; wherein the duration of the timer is related to a radio link control (RLC) mode of an offloading bearer. In embodiments of the present document, by setting the starting condition of the timer of the PDCP at the data receiving side, data packets are received and reordered within the duration of the timer when the data packets are received, and the timer is stopped while the data packets are continuously delivered when the stopping condition of the timer is satisfied, which realizes efficient ordered transmission of the data packets of the PDCP.