Abstract:
The present invention provides a TPC command generating method, device, and system, and relates to the field of communications. The TPC command generating device includes: a first determining unit, configured to determine a target cell in at least one non-serving high speed downlink shared channel (HS-DSCH) cell included in an active set of user equipment; and a first generating unit, configured to generate a TPC command of the target cell according to a measurement result of a downlink channel of the target cell. The present invention can solve a problem that no valid TPC command can be generated for any non-serving HS-DSCH cell, thereby achieving an effect of at least generating a TPC command corresponding to a target cell. The TPC command generating method, device, and system that are provided in the present invention TPC command are used for generating a TPC command.
Abstract:
A system and method for multiplexing traffic. A wireless device such as a base station may schedule a first transmission of first data (e.g., latency tolerant data) to a first UE on first resources, and transmit second data (e.g., low latency data) to a second UE on a portion of the first resources. The base station may signal a first indicator e.g. via Radio Resource Control (RRC) signaling to the first UE indicating that the first UE is to monitor for a second indicator that itself indicates the presence of second data on the first resources. The base station may then signal a second indicator to the first UE to indicate the presence of the second data on the first resources. By using the first indicator to initiate the monitoring of the second indicator, the first UE can reduce the amount of monitoring it needs to perform if there is no second data traffic in a certain period of time or in a certain frequency band.
Abstract:
Embodiments of the present invention provide a method and an apparatus for controlling transmit power of user equipment. The method includes: when total uplink transmit power of user equipment UE exceeds maximum allowed transmit power, calculating a first gain factor according to the maximum allowed transmit power; performing quantization processing on the first gain factor according to a gain factor of a first physical channel, to obtain a second gain factor, where the first physical channel includes a DPCCH2; reducing a gain factor of a second physical channel to the second gain factor, to reduce transmit power of the second physical channel, so that the total uplink transmit power of the UE does not exceed the maximum allowed transmit power, where the second physical channel includes an HS-DPCCH. This reduces a calculation error and improves control accuracy of transmit power.
Abstract:
A MEMS optical switch and a switching node are disclosed. The MEMS optical switch includes N1 input ports, N1 input MEMS mirrors, M1 output ports, and M1 output MEMS mirrors, where a first input port is configured to transmit a first optical signal to a first input MEMS mirror. The first input MEMS mirror is configured to reflect the first optical signal to a first destination output MEMS mirror, where along a straight line in which a first deflection axis is located, the first input MEMS mirror is located on an edge of the N1 input MEMS mirrors, and when reflecting the received first optical signal to a first output MEMS mirror and a second output MEMS mirror, the first input MEMS mirror deflects towards an opposite direction relative to a second deflection axis.
Abstract:
An embodiment method includes obtaining information about a serving node and information about a coordinating node of an edge user, performing coordinated scheduling on the edge user according to the information about the serving node and the information about the coordinating node, determining whether the serving node and the coordinating node can simultaneously schedule the edge user. In response to a determination that the serving node and the coordinating node can simultaneously schedule the edge user, the method further includes instructing the serving node and the coordinating node to allocate a same code channel resource to send data to the edge user.
Abstract:
The present invention is applicable to the field of wireless communications technologies, and provides a quality measurement method, a user equipment, and network-side device. The method includes: receiving, by a user equipment (UE), resource restricted subframe (RRS) information sent by a network-side device; and performing, by the UE, downlink channel quality measurement and/or downlink physical layer channel quality measurement according to the RRS information. In the present invention, the UE performs the downlink channel quality measurement or downlink physical layer channel quality measurement according to the RRS information sent by the network-side device. By using this measurement method, the UE can obtain a more accurate downlink channel quality measurement result or downlink physical layer channel quality measurement result.
Abstract:
An uplink signal control method and apparatus, which are used to resolve a problem that when a UE is not within primary carrier signal coverage of a micro cell, the micro cell cannot control uplink transmission of the UE on a primary carrier. The method includes: determining, by a first network device, uplink control configuration information for user equipment (UE), where the uplink control configuration information includes information about a control channel occupied by control information, which is transmitted by a second network device on a second carrier, for controlling an uplink transmission action of the UE on a first carrier; and notifying, by the first network device, the uplink control configuration information to the second network device, and sending the uplink control configuration information to the UE or instructing the second network device to send the uplink control configuration information to the UE.
Abstract:
The present invention provides a method and a device for transmitting wireless information. The method includes: sending, by an access controller, a first CAPWAP tunnel establishment request to a multi-service control gateway, wherein the first CAPWAP tunnel establishment request is used for requesting to establish a first CAPWAP tunnel; receiving, by the AC, a first CAPWAP tunnel establishment response sent by the MSCG; receiving, by the AC, wireless access information of a user sent by an AP; and sending, by the AC, the wireless access information of the user to the MSCG through the first CAPWAP tunnel. According to the embodiments of the present invention, by establishing a CAPWAP tunnel between the AC and the MSCG, the AC is enabled to transmit wireless access information of a user to the MSCG under the condition that the AC is separate from the MSCG.
Abstract:
Embodiments of the present application provide a method and a device for video transmission, which relates to the field of communications and is able to reduce feedback time, thus realizing the purpose of fully using resources and reducing data loss. The method includes at least the following operations: a base station receiving a second video data packet sent by a server and first feedback information about a first video data packet sent by user equipment, performing scheduling process according to the first feedback information, and after the scheduling process, transmitting the second video data packet to the user equipment according to the result of the scheduling process.
Abstract:
This application provides example uplink transmission methods and communication apparatuses. One example method includes sending first scheduling information by a network device to a first terminal and a second terminal, where the first scheduling information includes indication information of a sidelink transmission parameter and indication information of a first uplink transmission parameter, the sidelink transmission parameter is used by the first terminal to send first data to the second terminal, and the first uplink transmission parameter is used by the second terminal to send the first data to the network device. The first data is received by the network device from the second terminal.