WO2008028369A1 - System and method for enhancing closed loop synchronization power control and transmitting assistant scheduling information of uplink - Google Patents
System and method for enhancing closed loop synchronization power control and transmitting assistant scheduling information of uplink Download PDFInfo
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- WO2008028369A1 WO2008028369A1 PCT/CN2006/003790 CN2006003790W WO2008028369A1 WO 2008028369 A1 WO2008028369 A1 WO 2008028369A1 CN 2006003790 W CN2006003790 W CN 2006003790W WO 2008028369 A1 WO2008028369 A1 WO 2008028369A1
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- uplink
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04W—WIRELESS COMMUNICATION NETWORKS
- H04W52/00—Power management, e.g. TPC [Transmission Power Control], power saving or power classes
- H04W52/04—TPC
- H04W52/06—TPC algorithms
- H04W52/08—Closed loop power control
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04W—WIRELESS COMMUNICATION NETWORKS
- H04W72/00—Local resource management
- H04W72/20—Control channels or signalling for resource management
- H04W72/21—Control channels or signalling for resource management in the uplink direction of a wireless link, i.e. towards the network
Definitions
- the present invention relates to a time division code division multiple access (TD-CDMA) system, and particularly relates to an uplink enhancement technology supporting uplink in a time division code division multiple access wireless communication system.
- BACKGROUND OF THE INVENTION In a third generation mobile communication system, in order to provide higher rate uplink packet services and improve spectrum utilization efficiency, 3GPP (3rd Generation Partnership Project) in WCDMA (Wideband Code Division Multiple Access) and TD-CDMA systems
- WCDMA Wideband Code Division Multiple Access
- TD-CDMA Wideband Code Division Multiple Access
- the specification introduces the High Speed Uplink Packet Access (HSUPA) feature, that is, the uplink enhancement feature.
- HSUPA High Speed Uplink Packet Access
- the network processing time is reduced by introducing adaptive modulation and modulation (AMC), hybrid automatic retransmission request (HARQ: Hybrid Automatic Retransmission Request), and Node B (Node B) controlled scheduling techniques. Delay, thereby increasing the rate of uplink packet services and improving spectrum utilization efficiency.
- the HSUPA system is also known as the uplink augmentation system and is called the E-DCH system.
- the enhanced uplink data is carried on the newly introduced dedicated transport channel E-DCH.
- Each UE User Equipment
- an E-DCH channel is newly introduced, which is carried by the E-PUCH channel (Enhanced Uplink Physical Channel) of the physical layer.
- the scheduling entity located in the MAC-e entity of the Node B is responsible for the allocation of the E-PUCH physical resources, wherein the E-TFC (Enhanced Transport Format Combination) selects the entity authorization information to select the transport block length for the new data; the multiplexing and TSN setting entity According to the selection result of the E-TFC selecting entity, it is responsible for putting multiple MAC-d PDUs (protocol data units) from one logical channel into the MAC-es PDU, and multiplexing one or more MAC-es PDUs into one In the MAC-e PDU, a HARQ Profile is generated (the hybrid automatic repeat request service list); the scheduling access entity is responsible for obtaining and normalizing the scheduling related signaling information; the HARQ entity is responsible for the HARQ protocol related processing, including the MAC-e PDU storage and retransmission
- a part of the MAC-e uplink signaling is carried by two newly introduced uplink control channels, and the main transmission Input HARQ (Hybrid Automatic Repeat Request;), auxiliary scheduling related information, these channels are terminated at Node B.
- the E-UCCH (E-DCH uplink control channel) is included for transmitting E-TFCI and HARQ related information.
- the E-UCCH information may be transmitted in one or more time slots of the E-DCH and multiplexed with the E-DCH onto a set of E-PUCHs within the TTI.
- E-RUCCH E-DCH Random Access Uplink Control Channel
- the E-RUCCH can be mapped to a random access physical channel resource and can share some resources with the existing PRACH.
- E-AGCH E-DCH (Enhanced Dedicated Channel) Absolute Grant Channel)
- E-HICH E-DCH Hybrid Automatic Repeat Transmission Confirmation Indicator Channel
- the E-HCH is used to transmit the authorization information
- the E-HICH is used to carry the uplink E-DCH HARQ indication information.
- the RNC Radio Network Controller
- the RNC configures the E-PUCH resource of the unscheduled transmission, and the UE can transmit the E-DCH through the resource at any time as long as the resource is used.
- the E-PUCH resource pool is allocated by the RNC, and the UE allocates resources through the E-RUCCH or E-DCH request, and then the Node B dynamically configures the E-PUCH resources that each UE schedules to transmit. Only the Node B passes the E- When the AGCH channel authorizes the UE to use certain scheduled E-PUCH resources, the UE can send the E-DCH through the resource.
- the information related to the transmission assist scheduling may be transmitted in the E-DCH channel; there is no E-AGCH resource authorization and there is no non-scheduled resource allocation.
- the information When transmitting the information related to the secondary scheduling, the information must be transmitted through the E-RUCCH, and the mechanism initiated by the E-RUCCH is the same as the PRACH (Packet Random Access Channel), using the standard 3GPP transport channel processing flow, but the CRC (cyclic redundancy) The bits of the check) need to be reversed in polarity, so that the Node B can identify the E-RUCCH and the PRACH.
- PRACH Packet Random Access Channel
- CRC cyclic redundancy
- the bits of the check need to be reversed in polarity, so that the Node B can identify the E-RUCCH and the PRACH.
- the HSUPA technology in the above TD-CDMA system cannot be directly used in the TD-SCDMA system. Because this method does not consider the synchronization hold problem of the uplink channel.
- the uplink synchronization process for the E-PUCH is controlled by the SS (synchronization offset) command carried in the E-AGCH, and the E-AGCH can only carry the uplink synchronization control information of one UE, and Its allocation is related to the scheduling policy of the Node B, which causes the DB B and the UE to maintain a closed-loop synchronization process, forcing the UE to continuously initiate the resynchronization process.
- the UE does not have the E-AGCH resource grant and there is no non-scheduled resource allocation, in order to transmit the information related to the auxiliary scheduling, a similar and random access procedure must be initiated through the E-RUCCH, and the process further includes the UE transmitting the uplink pilot code.
- the system and method for uplink enhanced closed-loop synchronous power control and auxiliary scheduling information transmission of the present invention aims to provide an HSUPA technology in a time division code division multiple access system to simultaneously support uplink. Synchronous power control and auxiliary scheduling information transmission.
- a system for uplink enhanced closed-loop synchronous power control and auxiliary scheduling information transmission comprising: a MAC-es/e entity, wherein the MAC-es/e entity includes a multiplexing and transmitting sequence number Setting an entity, the system further includes: an uplink enhanced periodic split channel, configured to transmit auxiliary scheduling information and uplink high-level signaling information, where the channel resource is only allocated to user equipments that have no non-scheduled resources, and the related allocation information is used for uplink high-layer signaling.
- the enhanced uplink shared synchronization channel which is used to carry the uplink enhanced uplink physical channel and the uplink enhanced periodic split channel closed-loop synchronization and power information; wherein the MAC-es/e entity further includes: enhanced transport format combination selection and
- the synchronization control entity obtains uplink synchronization control information of the user equipment by enhancing the uplink shared synchronization channel, and transmits the information to the multiplexing and transmission sequence number setting entity.
- the auxiliary scheduling information access control entity obtains the auxiliary scheduling information by using the uplink enhanced periodic split channel and normalizes the obtained auxiliary scheduling information.
- the method for uplink enhanced closed-loop synchronous power control includes: a method for enhancing closed-loop synchronous power control in a time-division code division multiple access system, which is characterized by:
- the radio network controller allocates a scheduling resource to the Node B, and allocates an uplink synchronization control physical channel and an uplink enhanced periodic split channel resource to the user equipment that only schedules the resource, where the uplink synchronization control physical channel is used to carry the uplink synchronization command word of the user. And an uplink enhanced periodic split channel power control command word, where the uplink enhanced periodic split channel is used to carry auxiliary scheduling information;
- the user equipment completes the "synchronous establishment" and the uplink open loop power control through a random access process, an open loop synchronization process, and an open loop power control process;
- the Node B completes the uplink scheduling of the user equipment or the closed-loop synchronization of the non-scheduled enhanced uplink physical channel and the uplink enhanced periodic split channel by enhancing the synchronization offset command in the uplink shared synchronization channel;
- the Node B completes the closed loop power control of the uplink channel of the user equipment by enhancing the power control command in the uplink shared synchronization channel.
- the step (3) is specifically: the step (3) is specifically:
- the Node B measures the arrival time of the enhanced uplink physical channel or the uplink enhanced periodic split channel, generates a synchronization offset command, and periodically sends the command to the user equipment by the physical layer common control channel; (32) the user equipment according to The synchronization offset command adjusts the transmission advance amount of the enhanced uplink physical channel or the uplink enhanced periodic split channel, and completes the upper closed loop synchronization.
- the step (4) is specifically:
- a method for periodically transmitting auxiliary scheduling information in a time division code division multiple access system comprising:
- the radio network controller allocates a scheduling resource to the Node B, and allocates an uplink synchronization control physical channel and an uplink enhanced periodic split channel resource to the user equipment that only schedules the resource, where the uplink synchronization control physical channel is used to carry the uplink synchronization command word of the user. And an uplink enhanced periodic split channel power control command word, where the uplink enhanced periodic split channel is used to carry auxiliary scheduling information;
- the user equipment determines whether it is necessary to upload the auxiliary scheduling information. If it needs to upload, it transmits through the allocated uplink enhanced period split channel; if not, the step ends.
- the method for periodically transmitting auxiliary scheduling information in the time division code division multiple access system further includes:
- Node B obtains user equipment resource request information and user through the uploaded auxiliary scheduling information.
- the method for periodically transmitting auxiliary scheduling information in the time division code division multiple access system further includes:
- the uplink enhanced periodic split dedicated channel carries the uplink radio resource control layer signaling information of the user equipment.
- the method for periodically transmitting auxiliary scheduling information in the time division code division multiple access system further includes:
- Node B obtains the orientation information of the user equipment periodically by measuring the beam arrival angle of the uplink enhanced periodic split channel, and the information can be used for beamforming of the smart antenna.
- the step (2) is specifically:
- step (21) determining whether the user equipment has a non-scheduled enhanced uplink dedicated physical channel resource, if yes, transmitting the auxiliary scheduling information on the uplink enhanced dedicated physical channel; if not, proceeding to step (22);
- step (23) determining whether the user equipment has the authorized scheduling resource, if yes, transmitting the auxiliary scheduling information on the authorized uplink enhanced dedicated physical channel, if not, proceeding to step (23); (23) determining whether the user equipment has the uplink enhanced The periodic split dedicated channel resource, if any, transmits the secondary scheduling information on its assigned uplink enhanced periodic split dedicated channel; if not, the step ends.
- the present invention ensures that the HSUPA technology in the TD-SCDMA system can support uplink closed-loop synchronization and power control in the time division code division multiple access system with a small resource allocation cost, and also ensures that the UE has The determined resource can initiate the resource request information, report the path loss, and the UE power headroom information at any time, and provide a basis for the Node B to implement efficient and fast scheduling, and reduce the uplink signaling transmission delay of the UE without the resource grant.
- FIG. 1 is a schematic diagram of an HSUPA principle of a conventional TD-CDMA system
- 2 is a schematic diagram of the principle of the HSUPA of the time division code division multiple access system of the present invention
- FIG. 3 is a schematic diagram of the HSUPA related uplink closed loop synchronization method of the present invention
- FIG. 4 is a flowchart of the HSUPA uplink auxiliary scheduling information transmission method of the present invention.
- DETAILED DESCRIPTION OF THE INVENTION The present invention will be further described below in conjunction with the accompanying drawings.
- 1 is a schematic diagram of the HSUPA principle of a conventional TD-CDMA system.
- the enhanced uplink data is carried on the newly introduced dedicated transport channel E-DCH.
- Each UE has at most two CCTrCHs of the E-DCH type, and only one E-DCH can be multiplexed in each CCTrCH, one for unscheduled transmission and one for scheduled transmission.
- the enhanced uplink signaling bearer may be on the newly introduced dedicated transport channel E-DCH or the newly introduced dedicated transport channel E-FDCH.
- E-PUCH physical channel for transmitting CCTrCH of E-DCH type.
- the E-PUCH physical channel is divided into a non-scheduled E-PUCH physical channel and a scheduled E-PUCH physical channel, where the unscheduled E-PUCH physical channel and the E-FDCH are configured by the RNC to respectively carry the unscheduled E-DCH transport channel.
- CCTrCH and auxiliary scheduling transmission information; scheduling E-PUCH physical channel is dynamically configured by the scheduling entity located in the MAC-e of the Node B and is authorized for use by the UE through the E-AGCH channel, and is used to carry the CCTrCH for scheduling the E-DCH transmission channel. .
- FIG. 2 is a schematic diagram of the principle of the HSUPA of the time division code division multiple access system of the present invention.
- a system for uplink enhanced closed-loop synchronous power control and auxiliary scheduling information transmission comprising: a MAC-es/e entity, wherein the MAC-es/e The entity includes a multiplexing and sending sequence number setting entity, and the system further includes: an uplink enhanced periodic split channel, configured to transmit auxiliary scheduling information and uplink high layer signaling information, where the channel resource is only allocated to the non-scheduled resource.
- the user equipment, the related allocation information is sent to the node B through the uplink high-level signaling;
- the enhanced uplink shared synchronization channel is configured to carry the uplink enhanced uplink physical channel and the uplink enhanced periodic split channel closed-loop synchronization and power information;
- the MAC-es/e entity further includes: an enhanced transport format combination selection and synchronization control entity, where the entity obtains uplink synchronization control information of the user equipment by enhancing the uplink shared synchronization channel, and transmits the information to the multiplexing and Send the serial number to set the entity.
- the auxiliary scheduling information access control entity obtains the auxiliary scheduling information by using the uplink enhanced periodic split channel and normalizes the obtained auxiliary scheduling information.
- a part of the MAC-e uplink signaling is carried by two new uplink control channels 7, and mainly transmits HARQ and auxiliary scheduling related information. It includes an E-UCCH (E-DCH uplink control channel) for transmitting E-TFCI and HARQ related information.
- E-UCCH E-DCH uplink control channel
- E-FDCH used to transmit auxiliary scheduling related information and uplink high layer signaling information, and is only used for scheduling transmission.
- E-FDCH implements resource sharing by multiple UEs in a time division manner.
- the downlink signaling channels E-AGCH, E-HICH and E-USCH are newly introduced.
- E-AGCH is used to transmit authorization information and is only used for scheduling transmission;
- E-HICH is used to carry uplink E-DCH HARQ indication information;
- E-USCH channel is used to carry uplink E-PUCH and E-FDCH closed-loop synchronization and power control information .
- the HSUPA uplink closed-loop synchronous power control method includes the following steps:
- the radio network controller allocates a scheduling resource to the Node B, and allocates an uplink synchronization control physical channel and an uplink enhanced periodic split channel resource to the user equipment that only schedules the resource, where the uplink synchronization control physical channel is used to carry the user uplink.
- the synchronization command word and the uplink enhanced period split channel power control command word, the uplink enhanced period split channel is used to carry the auxiliary scheduling information and the uplink high layer signaling information; when determining, in the RNC, a Node B supports the HSUPA technology, the RNC first needs to be performed at the RNC.
- Allocating channel resources related to HSUPA technology including scheduling transmission of E-PUCH channel resource pool, scheduling transmission of downlink signaling channel E-AGCH, E-HICH, E-USCH channel resource pool, and simultaneously allocating UEs without non-scheduled resources E-FDCH channel resource.
- These channel resources include channelization code resources, transmit power resources, and transmit code resources used as channel estimates.
- the E-USCH recommends the PLCCH (Physical Layer Common Control Channel) channel defined in the protocol without adding a new channel.
- the RNC After the RNC completes the above resource allocation, it can pass the physical connection in the NBAP protocol of the lub interface.
- the physical shared channel reconfiguration procedure (the physical shared channel reconfiguration procedure) is sent to the Node B, and the Node B completes the resource configuration, and sends the configuration result to the RNC in the corresponding response message.
- the FLNC determines to allocate non-scheduled transmissions and/or scheduled transmission resources for one service of one UE. For non-scheduled transmissions, the RNC allocates non-scheduled transmitted E-PUCH channel resources. E-FDCH channel resources are allocated to UEs that only schedule transmission.
- the RNB can perform the radio link setup process, the radio link addition, and the synchronous radio link in the NBAP protocol of the Iub interface. Synchronised Radio Link Reconfiguration Preparation The request message during the process or the Unsynchronised Radio Link Reconfiguration is sent to the Node B.
- the user equipment completes the uplink synchronization establishment and the upper open loop power control through the random access process, the open loop synchronization process, and the open loop power control process.
- Node B After synchronization is established, Node B completes the closed-loop synchronization of the UE uplink scheduling/non-scheduled E-PUCH and E-FDCH channels through the SS in the PLCCH channel, and the PLCCH can also carry the uplink power control command (TPC) to complete the uplink closed loop.
- TPC uplink power control command
- Power control When the UE uplink synchronization is initially established, the UE may complete the establishment of the uplink synchronization by initiating a random access procedure.
- the specific process can refer to the 3GGP protocol.
- 3 is an HSUPA related uplink closed loop synchronization method of the present invention.
- the Node B After the uplink synchronization is established, the Node B measures the arrival time of the uplink E-PUCH or E-FDCH, and generates a corresponding SS command, which is carried by the PLCCH downlink synchronization control channel and sent to the UE.
- the PLCCH carries the uplink synchronization control commands of multiple UEs at the same time and transmits them in a certain period.
- the UE adjusts the transmission advance of the uplink E-PUCH or E-FDCH according to the synchronization control command, as shown in FIG.
- the Node B measures the E-FDCH received power, generates a corresponding TPC command, and is carried by the PLCCH downlink channel and sent to the UE.
- the PLCCH carries the uplink power control commands of multiple UEs at the same time.
- the UE adjusts the transmit power of the E-FDCH according to the power control command.
- a method for periodically transmitting auxiliary scheduling information by a time division code division multiple access system includes:
- the radio network controller allocates a scheduling resource to the Node B, and allocates an uplink synchronization control physical channel and an uplink enhanced periodic split channel resource to the user equipment that only schedules the resource, where the uplink synchronization control physical channel is used to carry the uplink synchronization command word of the user. And uplink enhanced period split channel power control The command, the uplink enhanced periodic split channel is used to carry the auxiliary scheduling information and the uplink high layer signaling information;
- step (2) When the UE needs to upload the auxiliary scheduling information, it may transmit through the latest available uplink resources, including the unscheduled E-PUCH, the authorized scheduling E-PUCH, and the E-FDCH.
- step (2) is specifically:
- the auxiliary scheduling information (including the UE buffer occupancy information, the path loss information, and the UE residual power resource) may be MAC-in the E-PUCH.
- the e PDU is sent to the Node B; if not, the process proceeds to step (22);
- Step (23) determining whether the UE has the scheduling resource to authorize the E-PUCH resource, and if so, the auxiliary scheduling information may be combined with the uplink and downlink service data of the UE, and then transmitted in the E-PUCH 4 channel of the 4 ⁇ right; if not, the transfer is performed.
- the user equipment performs auxiliary scheduling information measurement.
- the UE may select to send auxiliary scheduling related information on that channel according to its own resource allocation situation, wherein the auxiliary scheduling information always carries the latest relevant measurement information.
- Node B can obtain the latest UE resource request information and UE power headroom and path loss information from the E-PUCH and E-FDCH channels, as a reference for the fast scheduling algorithm.
- the fast scheduling algorithm in Node B is responsible for the allocation of scheduling resources. In order to allocate resources reasonably and efficiently, satisfy QoS service quality, and reduce uplink interference, the scheduling algorithm needs to know the total amount of information to be transmitted in the current buffer of the UE, the current path loss information, the interference information of the neighboring cell, and the transmit power of the UE. margin. Node B can obtain relevant information from the E-PUCH and E-FDCH channels in time.
- the scheduling of the E-PUCH resource allocation depends on the resource authorization of the Node B, not all UEs can always obtain the resource authorization, and the E-FDCH ensures that the UE that does not obtain the scheduling resource authorization timely reports the relevant auxiliary scheduling information. Based on these reported information, the Node B can better adjust the scheduling resource allocation policy.
- the E-FDCH can be used to carry uplink RRC layer signaling information of the UE.
- the Node B is responsible for distinguishing whether the E-FDCH carries the auxiliary scheduling information or the high layer signaling information.
- the Node B periodically obtains the orientation information of the user equipment by measuring the beam arrival angle of the upper 4 split channel of the enhanced period, and the information can be used for beamforming of the smart antenna.
- the uplink RC layer signaling of the UE may also be transmitted through the E-FDCH channel.
- the Node B may adopt some special technologies.
- This technique is used in the TD-CDMA system HSUPA technology to distinguish between the PRACH channel and the E-RUCCH channel, as distinguished by the positive and negative CRC schools 3.
- the E-FDCH channel can be terminated at Node B or suspended at the RNC. This method can effectively improve the utilization of resources.
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Abstract
A system and method for enhancing closed loop synchronization power control and transmitting assistant scheduling information of uplink are disclosed for solving the problem of closed loop synchronization power control and periodically transmitting of assistant scheduling information of uplink. The system comprises E-FDCH and E-USCH of MAC-es/e entity. The enhancing closed loop synchronization power control of uplink method includes: RNC assigning the resource; UE realizing uplink synchronization and uplink opened loop power control; Node B realizing closed loop synchronization and closed loop power control of UE. The periodically transmitting of the assistant scheduling information method includes: RNC assigning resource; judging whether the UE need to upload the assistant scheduling information, if yes, then uploading; if no, then ending. The present invention ensures the Node B to acquire the assistant scheduling information of all the UEs in time, and improves the whole capability of the scheduling arithmetic.
Description
上行增强闭环同步功控和辅助调度信息传输的系统和方法 技术领域 本发明涉及时分码分多址( TD-CDMA ) 系统, 具体涉及时分码分多址接 入无线通讯系统中上行增强技术支持上行闭环同步功控和辅助调度信息传输 的系统和方法。 背景技术 在第三代移动通信系统中, 为了提供更高速率的上行分组业务,提高频谱 利用效率, 3GPP ( 3rd Generation Partnership Project ) 在 WCDMA (宽带码分 多工存取)和 TD-CDMA系统的规范中引入了高速上行分组接入( HSUPA: High Speed Uplink Packet Access )特性, 即上行增强特性。 在 HSUPA特性中, 通过 引入自适应编码调制( AMC: Adaptive Modulation and Coding )、 混合自动重传 请求 ( HARQ: Hybrid Automatic Retransmission Request )以及 Node B (节点 B ) 控制的调度技术, 减小网络处理时延, 从而来提高上行分组业务速率, 提高频 谱利用效率。 HSUPA系统又被称之为上行增强系统,筒称为 E-DCH系统。在 TD-CDMA 系统中传输信道方面,增强上行链路数据承载在新引入的专用传输信道 E-DCH 上。 每个 UE (用户设备) 最多只有一条 E-DCH类型的 CCTrCH (编码组合传 输信道), 每条 CCTrCH中只能复用一条 E-DCH。 如图 1所示,在 MAC层,新引入 E-DCH信道,该信道由物理层的 E-PUCH 信道(增强上行物理信道)承载。 位于 Node B的 MAC- e实体中的调度实体负 责 E-PUCH物理资源的分配, 其中 E-TFC (增强传输格式组合 )选择实体 居 授权信息为新数据选择传输块长度; 复用和 TSN设置实体根据 E-TFC选择实 体的选择结果, 负责将来自一个逻辑信道的多个 MAC-d PDU (协议数据单元) 放入 MAC- es PDU中, 并将一个或多个 MAC-es PDU复用到一个 MAC-e PDU 中, 并产生 HARQ Profile (混合自动重传请求服务清单); 调度接入实体负责 获得和规整与调度相关的信令信息; HARQ实体负责 HARQ协议相关的处理, 包括对 MAC-e PDU的存储和重发。 TECHNICAL FIELD The present invention relates to a time division code division multiple access (TD-CDMA) system, and particularly relates to an uplink enhancement technology supporting uplink in a time division code division multiple access wireless communication system. A system and method for closed loop synchronous power control and auxiliary scheduling information transmission. BACKGROUND OF THE INVENTION In a third generation mobile communication system, in order to provide higher rate uplink packet services and improve spectrum utilization efficiency, 3GPP (3rd Generation Partnership Project) in WCDMA (Wideband Code Division Multiple Access) and TD-CDMA systems The specification introduces the High Speed Uplink Packet Access (HSUPA) feature, that is, the uplink enhancement feature. In the HSUPA feature, the network processing time is reduced by introducing adaptive modulation and modulation (AMC), hybrid automatic retransmission request ( HARQ: Hybrid Automatic Retransmission Request), and Node B (Node B) controlled scheduling techniques. Delay, thereby increasing the rate of uplink packet services and improving spectrum utilization efficiency. The HSUPA system is also known as the uplink augmentation system and is called the E-DCH system. In terms of transport channels in a TD-CDMA system, the enhanced uplink data is carried on the newly introduced dedicated transport channel E-DCH. Each UE (User Equipment) has a maximum of one E-DCH type CCTrCH (coded combined transmission channel), and only one E-DCH can be multiplexed in each CCTrCH. As shown in Figure 1, at the MAC layer, an E-DCH channel is newly introduced, which is carried by the E-PUCH channel (Enhanced Uplink Physical Channel) of the physical layer. The scheduling entity located in the MAC-e entity of the Node B is responsible for the allocation of the E-PUCH physical resources, wherein the E-TFC (Enhanced Transport Format Combination) selects the entity authorization information to select the transport block length for the new data; the multiplexing and TSN setting entity According to the selection result of the E-TFC selecting entity, it is responsible for putting multiple MAC-d PDUs (protocol data units) from one logical channel into the MAC-es PDU, and multiplexing one or more MAC-es PDUs into one In the MAC-e PDU, a HARQ Profile is generated (the hybrid automatic repeat request service list); the scheduling access entity is responsible for obtaining and normalizing the scheduling related signaling information; the HARQ entity is responsible for the HARQ protocol related processing, including the MAC-e PDU storage and retransmission.
MAC-e上行信令中的一部分由 2条新引入的上行控制信道承载, 主要传
输 HARQ(混合自动重传请求;)、辅助调度相关的信息,这些信道都终结于 Node B。 包括 E-UCCH ( E- DCH上行链路控制信道), 用于传输 E-TFCI、 HARQ相 关的信息。 E-UCCH 信息可以在 E- DCH 的一个或多个时隙中传输, 并且和 E-DCH复用到 TTI内的一组 E- PUCH上。 E-RUCCH ( E-DCH随机接入上行链 路控制信道) 用于传输辅助调度相关的信息。 E-RUCCH 可以映射到随机接入 物理信道资源上, 且可以和现有的 PRACH共用一些资源。 新引入下行信令信 道 E-AGCH ( E-DCH (增强专用信道 )绝对授权信道)和 E-HICH ( E-DCH混 合自动重传确认指示信道)。 E-AGCH用于传输授权信息; E-HICH用于携带上 行 E-DCH HARQ指示信息。 上述 TD-CDMA 系统中, 对于非调度传输, RNC (无线网络控制器) 配 置非调度传输的 E-PUCH资源, 只要该资源寸用, UE可以在任何时间通过该 资源发送 E-DCH而不需要从 Node B中获得调度授权。这可以减少信令负荷和 调度延迟。对于调度传输,由 RNC分配调度 E-PUCH资源池,UE通过 E-RUCCH 或者 E-DCH 请求分配资源, 然后由 Node B 动态配置每个 UE 调度传输的 E-PUCH资源, 只有 Node B通过 E-AGCH信道授权 UE使用某些调度传输的 E-PUCH资源时, UE才可以通过该资源发送 E-DCH。 在该方法中, UE 在有 E-AGCH资源授权或有非调度资源分配时, 其传输辅助调度相关的信息可以在 E-DCH信道中传输; 在没有 E-AGCH资源授权且没有非调度资源分配时, 传 输辅助调度相关的信息必须通过 E-RUCCH进行信息传输, 而 E-RUCCH发起 的机制与 PRACH (分组随机接入信道)相同, 使用标准的 3GPP传输信道处 理流程, 但 CRC (循环冗余校验)部分的比特需要进行极性反转, 以便于 Node B识别 E-RUCCH和 PRACH, 具体可以参考现有 3GGP协议。 上述 TD-CDMA系统中的 HSUPA技术中不能直接用于 TD-SCDMA系统。 因为这种方法没有考虑上行信道的同步保持问题。 如果直接采用上述方法, 对 于 E-PUCH的上行同步过程是由 E-AGCH中携带的 SS (同步偏移) 命令控制 的, 而 E-AGCH—次只能携带一个 UE 的上行同步控制信息, 并且其分配与 Node B的调度策略有关, 这导致了 Node B和 UE间 艮难保持闭环同步过程, 迫使 UE不断发起重同步过程。 而当 UE没有 E- AGCH资源授权且没有非调度 资源分配时, 为了传输辅助调度相关的信息, 必须通过 E-RUCCH发起类似与 随机接入的过程, 这个过程还包括 UE发送上行导频码完成上行同步过程。 这 可能使 UE频繁的发起随机接入过程, 导致接入碰撞几率大大增加。
发明内容 为了解决现有技术中的缺陷和不足,本发明上行增强闭环同步功控和辅助 调度信息传输的系统和方法的目的在于提供一种时分码分多址系统中 HSUPA 技术, 以同时支持上行同步功控和辅助调度信息传输。 为了达到上述目的, 本发明是这样实现的: 上行增强闭环同步功控和辅助调度信息传输的系统, 包括: MAC-es/e实 体, 其中该 MAC-es/e实体包括复用和发送序列号设置实体, 该系统还包括: 上行增强周期分裂信道, 用于传输辅助调度信息和上行高层信令信息, 该 信道资源只分配给没有非调度资源的用户设备, 其相关分配信息通过上行高层 信令发送给节点 B; 增强上行共享同步信道,用于携带上行增强上行物理信道和上行增强周期 分裂信道闭环同步和功率信息; 其中, 所述 MAC-es/e实体还包括: 增强传输格式组合选择和同步控制实体,该实体通过增强上行共享同步信 道获得用户设备的上行同步控制信息, 并将所述信息传送给复用和发送序列号 设置实体。 辅助调度信息接入控制实体, 该实体通过上行增强周期分裂信道获得辅 助调度信息并对获得的辅助调度信息进行规整。 上行增强闭环同步功控的方法, 包括: 时分码分多址系统中上^"增强闭环同步功控的方法, 其特征在于, 包括: A part of the MAC-e uplink signaling is carried by two newly introduced uplink control channels, and the main transmission Input HARQ (Hybrid Automatic Repeat Request;), auxiliary scheduling related information, these channels are terminated at Node B. The E-UCCH (E-DCH uplink control channel) is included for transmitting E-TFCI and HARQ related information. The E-UCCH information may be transmitted in one or more time slots of the E-DCH and multiplexed with the E-DCH onto a set of E-PUCHs within the TTI. E-RUCCH (E-DCH Random Access Uplink Control Channel) is used to transmit auxiliary scheduling related information. The E-RUCCH can be mapped to a random access physical channel resource and can share some resources with the existing PRACH. A downlink signaling channel E-AGCH (E-DCH (Enhanced Dedicated Channel) Absolute Grant Channel) and an E-HICH (E-DCH Hybrid Automatic Repeat Transmission Confirmation Indicator Channel) are newly introduced. The E-HCH is used to transmit the authorization information; the E-HICH is used to carry the uplink E-DCH HARQ indication information. In the above TD-CDMA system, for non-scheduled transmission, the RNC (Radio Network Controller) configures the E-PUCH resource of the unscheduled transmission, and the UE can transmit the E-DCH through the resource at any time as long as the resource is used. Obtain scheduling authorization from Node B. This can reduce signaling load and scheduling delay. For the scheduled transmission, the E-PUCH resource pool is allocated by the RNC, and the UE allocates resources through the E-RUCCH or E-DCH request, and then the Node B dynamically configures the E-PUCH resources that each UE schedules to transmit. Only the Node B passes the E- When the AGCH channel authorizes the UE to use certain scheduled E-PUCH resources, the UE can send the E-DCH through the resource. In the method, when the UE has an E-AGCH resource grant or has a non-scheduled resource allocation, the information related to the transmission assist scheduling may be transmitted in the E-DCH channel; there is no E-AGCH resource authorization and there is no non-scheduled resource allocation. When transmitting the information related to the secondary scheduling, the information must be transmitted through the E-RUCCH, and the mechanism initiated by the E-RUCCH is the same as the PRACH (Packet Random Access Channel), using the standard 3GPP transport channel processing flow, but the CRC (cyclic redundancy) The bits of the check) need to be reversed in polarity, so that the Node B can identify the E-RUCCH and the PRACH. For details, refer to the existing 3GGP protocol. The HSUPA technology in the above TD-CDMA system cannot be directly used in the TD-SCDMA system. Because this method does not consider the synchronization hold problem of the uplink channel. If the above method is directly used, the uplink synchronization process for the E-PUCH is controlled by the SS (synchronization offset) command carried in the E-AGCH, and the E-AGCH can only carry the uplink synchronization control information of one UE, and Its allocation is related to the scheduling policy of the Node B, which causes the DB B and the UE to maintain a closed-loop synchronization process, forcing the UE to continuously initiate the resynchronization process. When the UE does not have the E-AGCH resource grant and there is no non-scheduled resource allocation, in order to transmit the information related to the auxiliary scheduling, a similar and random access procedure must be initiated through the E-RUCCH, and the process further includes the UE transmitting the uplink pilot code. Uplink synchronization process. This may cause the UE to initiate a random access procedure frequently, resulting in a greatly increased probability of access collision. SUMMARY OF THE INVENTION In order to solve the defects and deficiencies in the prior art, the system and method for uplink enhanced closed-loop synchronous power control and auxiliary scheduling information transmission of the present invention aims to provide an HSUPA technology in a time division code division multiple access system to simultaneously support uplink. Synchronous power control and auxiliary scheduling information transmission. In order to achieve the above object, the present invention is implemented as follows: A system for uplink enhanced closed-loop synchronous power control and auxiliary scheduling information transmission, comprising: a MAC-es/e entity, wherein the MAC-es/e entity includes a multiplexing and transmitting sequence number Setting an entity, the system further includes: an uplink enhanced periodic split channel, configured to transmit auxiliary scheduling information and uplink high-level signaling information, where the channel resource is only allocated to user equipments that have no non-scheduled resources, and the related allocation information is used for uplink high-layer signaling. Sending to the Node B; the enhanced uplink shared synchronization channel, which is used to carry the uplink enhanced uplink physical channel and the uplink enhanced periodic split channel closed-loop synchronization and power information; wherein the MAC-es/e entity further includes: enhanced transport format combination selection and The synchronization control entity obtains uplink synchronization control information of the user equipment by enhancing the uplink shared synchronization channel, and transmits the information to the multiplexing and transmission sequence number setting entity. The auxiliary scheduling information access control entity obtains the auxiliary scheduling information by using the uplink enhanced periodic split channel and normalizes the obtained auxiliary scheduling information. The method for uplink enhanced closed-loop synchronous power control includes: a method for enhancing closed-loop synchronous power control in a time-division code division multiple access system, which is characterized by:
( 1 )无线网络控制器为节点 B分配调度资源, 为只有调度资源的用户设 备分配上行同步控制物理信道和上行增强周期分裂信道资源, 其中上行同步控 制物理信道用于承载用户上行的同步命令字和上行增强周期分裂信道功控命 令字, 上行增强周期分裂信道用于承载辅助调度信息; (1) The radio network controller allocates a scheduling resource to the Node B, and allocates an uplink synchronization control physical channel and an uplink enhanced periodic split channel resource to the user equipment that only schedules the resource, where the uplink synchronization control physical channel is used to carry the uplink synchronization command word of the user. And an uplink enhanced periodic split channel power control command word, where the uplink enhanced periodic split channel is used to carry auxiliary scheduling information;
( 2 ) 用户设备通过随机接入过程、 开环同步过程和开环功控过程完成上 ^"同步建立和上行开环功率控制;
( 3 )节点 B通过增强上行共享同步信道中的同步偏移命令完成用户设备 的上行调度或非调度增强上行物理信道和上行增强周期分裂信道的闭环同步; (2) The user equipment completes the "synchronous establishment" and the uplink open loop power control through a random access process, an open loop synchronization process, and an open loop power control process; (3) The Node B completes the uplink scheduling of the user equipment or the closed-loop synchronization of the non-scheduled enhanced uplink physical channel and the uplink enhanced periodic split channel by enhancing the synchronization offset command in the uplink shared synchronization channel;
( 4 )节点 B通过增强上行共享同步信道中的功控命令完成用户设备的上 4亍增强周期分裂信道的闭环功率控制。 其中, 所述步骤(3 )具体为: 所述步骤(3 )具体为: (4) The Node B completes the closed loop power control of the uplink channel of the user equipment by enhancing the power control command in the uplink shared synchronization channel. The step (3) is specifically: the step (3) is specifically:
( 31 ) 节点 B测量增强上行物理信道或上行增强周期分裂信道的到达时 间, 生成同步偏移命令, 并由物理层公共控制信道将所述命令周期性发送给用 户设备; ( 32 )用户设备根据同步偏移命令调整增强上行物理信道或上行增强周期 分裂信道的发送提前量, 完成上 4亍闭环同步。 其中, 所述的步骤(4 )具体为: (31) the Node B measures the arrival time of the enhanced uplink physical channel or the uplink enhanced periodic split channel, generates a synchronization offset command, and periodically sends the command to the user equipment by the physical layer common control channel; (32) the user equipment according to The synchronization offset command adjusts the transmission advance amount of the enhanced uplink physical channel or the uplink enhanced periodic split channel, and completes the upper closed loop synchronization. Wherein, the step (4) is specifically:
( 41 )节点 B测量行增强周期分裂信道的接收功率, 生成功率控制命令, 并由物理层公共控制信道将所述功率控制命令发送给用户设备; ( 42 ) 用户设备根据功率控制命令调整行增强周期分裂信道的发送功率, 完成上行闭环功率控制。 时分码分多址系统中辅助调度信息周期性传输的方法,其特征在于,包括: (41) the Node B measures the received power of the enhanced periodic split channel, generates a power control command, and sends the power control command to the user equipment by the physical layer common control channel; (42) the user equipment adjusts the row enhancement according to the power control command. The transmit power of the periodic split channel completes the uplink closed loop power control. A method for periodically transmitting auxiliary scheduling information in a time division code division multiple access system, comprising:
( 1 )无线网絡控制器为节点 B分配调度资源, 为只有调度资源的用户设 备分配上行同步控制物理信道和上行增强周期分裂信道资源, 其中上行同步控 制物理信道用于承载用户上行的同步命令字和上行增强周期分裂信道功控命 令字, 上行增强周期分裂信道用于承载辅助调度信息; (1) The radio network controller allocates a scheduling resource to the Node B, and allocates an uplink synchronization control physical channel and an uplink enhanced periodic split channel resource to the user equipment that only schedules the resource, where the uplink synchronization control physical channel is used to carry the uplink synchronization command word of the user. And an uplink enhanced periodic split channel power control command word, where the uplink enhanced periodic split channel is used to carry auxiliary scheduling information;
( 2 ) 用户设备判断是否需要上传辅助调度信息, 若需要上传, 则通过已 分配的上行增强周期分裂信道进行传输; 若不需要, 则步骤结束。 其中,所述的时分码分多址系统中辅助调度信息周期性传输的方法进一步 的还包括: (2) The user equipment determines whether it is necessary to upload the auxiliary scheduling information. If it needs to upload, it transmits through the allocated uplink enhanced period split channel; if not, the step ends. The method for periodically transmitting auxiliary scheduling information in the time division code division multiple access system further includes:
( 3 )节点 B通过上传的辅助调度信息获得用户设备资源请求信息和用户
设备功率余量和路损信息。 其中,所述的时分码分多址系统中辅助调度信息周期性传输的方法进一步 的还包括: (3) Node B obtains user equipment resource request information and user through the uploaded auxiliary scheduling information. Equipment power headroom and path loss information. The method for periodically transmitting auxiliary scheduling information in the time division code division multiple access system further includes:
( 4 ) 上行增强周期分裂专用信道承载用户设备的上行无线资源控制层信 令信息。 其中,所述的时分码分多址系统中辅助调度信息周期性传输的方法进一步 的还包括: (4) The uplink enhanced periodic split dedicated channel carries the uplink radio resource control layer signaling information of the user equipment. The method for periodically transmitting auxiliary scheduling information in the time division code division multiple access system further includes:
( 5 )节点 B通过测量上行增强周期分裂信道的波束到达角, 周期性的获 得用户设备的方位信息, 该信息可用于智能天线的波束赋形。 其中, 所述步骤(2 )具体为: (5) Node B obtains the orientation information of the user equipment periodically by measuring the beam arrival angle of the uplink enhanced periodic split channel, and the information can be used for beamforming of the smart antenna. Wherein, the step (2) is specifically:
( 21 )判断用户设备是否具有非调度增强上行专用物理信道资源, 若有, 则在上行增强专用物理信道上传送辅助调度信息; 若没有, 则转入步骤(22 ); (21) determining whether the user equipment has a non-scheduled enhanced uplink dedicated physical channel resource, if yes, transmitting the auxiliary scheduling information on the uplink enhanced dedicated physical channel; if not, proceeding to step (22);
( 22 )判断用户设备是否具有授权调度资源, 若有, 则在授权上行增强专 用物理信道上传输辅助调度信息, 若没有, 则转入步骤(23 ); ( 23 )判断用户设备是否具有上行增强周期分裂专用信道资源, 若有, 在 其分配的上行增强周期分裂专用信道上传输辅助调度信息; 若没有, 则步骤结 束。 与现有技术相比,本发明使得在时分码分多址系统中, 以很小的资源分配 代价, 确保 TD-SCDMA系统中 HSUPA技术能够支持上行闭环同步和功控, 同时也保证了 UE有确定的资源可以随时发起资源请求信息、 上报路损和 UE 功率余量信息, 为 Node B实施高效快速的调度提供依据, 降低了没有资源授 权的 UE的上行信令传输时延。 本发明不但避免了 UE由于上行同步失步而频 繁的发起随机接入和上行开环同步过程, 降低了接入碰撞的概率和系统负荷, 而且可以充分发挥快速调度算法的优势,可以有效提高节点 B上行总吞吐量和 UE的 QoS月艮务质量。 附图说明 图 1是现有 TD- CDMA系统的 HSUPA原理示意图;
图 2是本发明的时分码分多址系统 HSUPA原理示意图; 图 3是本发明的 HSUPA相关的上行闭环同步方法; 图 4是本发明的 HSUPA上行辅助调度信息传输方法流程图。 具体实施方式 下面结合附图对本发明做进一步的说明。 图 1是现有 TD-CDMA系统的 HSUPA原理示意图。 在传输信道方面, 增强上行链路数据承载在新引入的专用传输信道 E-DCH上。 每个 UE最多有两条 E-DCH类型的 CCTrCH, 每条 CCTrCH中只 能复用一条 E- DCH, —条用来进行非调度传输, 一条用来进行调度传输。 增强 上行链路信令承载可以在新引入的专用传输信道 E-DCH上或新引入的专用传 输信道 E-FDCH上。 在物理层>新引入 E-PUCH物理信道,用于传输 E-DCH类型的 CCTrCH。 E-PUCH物理信道被区分为非调度 E-PUCH物理信道和调度 E-PUCH物理信 道, 其中非调度 E-PUCH物理信道和 E- FDCH由 RNC配置, 分别用来 载非 调度 E-DCH传输信道的 CCTrCH和辅助调度传输信息; 调度 E-PUCH物理信 道由位于 Node B的 MAC- e中的调度实体动态配置并通过 E-AGCH信道授权 给 UE使用, 用来承载调度 E-DCH传输信道的 CCTrCH。 非调度 E-PUCH物 理信道和调度 E-PUCH物理信道的突发时隙格式完全相同。 图 2是本发明的时分码分多址系统 HSUPA原理示意图。 如图 2所示, 上 行增强闭环同步功控和辅助调度信息传输的系统, 上行增强闭环同步功控和辅 助调度信息传输的系统, 包括: MAC-es/e实体, 其中该 MAC-es/e实体包括复 用和发送序列号设置实体, 其特征在于, 该系统还包括: 上行增强周期分裂信道, 用于传输辅助调度信息和上行高层信令信息, 该 信道资源只分配给没有非调度资源的用户设备, 其相关分配信息通过上行高层 信令发送给节点 B; 增强上行共享同步信道,用于携带上行增强上 ^亍物理信道和上行增强周期 分裂信道闭环同步和功率信息;
其中, 所述 MAC-es/e实体还包括: 增强传输格式组合选择和同步控制实体,该实体通过增强上行共享同步信 道获得用户设备的上行同步控制信息, 并将所述信息传送给复用和发送序列号 设置实体。 辅助调度信息接入控制实体, 该实体通过上行增强周期分裂信道获得辅 助调度信息并对获得的辅助调度信息进行规整。 (22) determining whether the user equipment has the authorized scheduling resource, if yes, transmitting the auxiliary scheduling information on the authorized uplink enhanced dedicated physical channel, if not, proceeding to step (23); (23) determining whether the user equipment has the uplink enhanced The periodic split dedicated channel resource, if any, transmits the secondary scheduling information on its assigned uplink enhanced periodic split dedicated channel; if not, the step ends. Compared with the prior art, the present invention ensures that the HSUPA technology in the TD-SCDMA system can support uplink closed-loop synchronization and power control in the time division code division multiple access system with a small resource allocation cost, and also ensures that the UE has The determined resource can initiate the resource request information, report the path loss, and the UE power headroom information at any time, and provide a basis for the Node B to implement efficient and fast scheduling, and reduce the uplink signaling transmission delay of the UE without the resource grant. The invention not only avoids the frequent initiation of the random access and the uplink open loop synchronization process by the UE due to the uplink synchronization out of synchronization, reduces the probability of the access collision and the system load, and can fully utilize the advantages of the fast scheduling algorithm, and can effectively improve the node. B uplink total throughput and UE QoS monthly service quality. BRIEF DESCRIPTION OF DRAWINGS FIG. 1 is a schematic diagram of an HSUPA principle of a conventional TD-CDMA system; 2 is a schematic diagram of the principle of the HSUPA of the time division code division multiple access system of the present invention; FIG. 3 is a schematic diagram of the HSUPA related uplink closed loop synchronization method of the present invention; FIG. 4 is a flowchart of the HSUPA uplink auxiliary scheduling information transmission method of the present invention. DETAILED DESCRIPTION OF THE INVENTION The present invention will be further described below in conjunction with the accompanying drawings. 1 is a schematic diagram of the HSUPA principle of a conventional TD-CDMA system. In terms of transport channels, the enhanced uplink data is carried on the newly introduced dedicated transport channel E-DCH. Each UE has at most two CCTrCHs of the E-DCH type, and only one E-DCH can be multiplexed in each CCTrCH, one for unscheduled transmission and one for scheduled transmission. The enhanced uplink signaling bearer may be on the newly introduced dedicated transport channel E-DCH or the newly introduced dedicated transport channel E-FDCH. At the physical layer > newly introduced E-PUCH physical channel for transmitting CCTrCH of E-DCH type. The E-PUCH physical channel is divided into a non-scheduled E-PUCH physical channel and a scheduled E-PUCH physical channel, where the unscheduled E-PUCH physical channel and the E-FDCH are configured by the RNC to respectively carry the unscheduled E-DCH transport channel. CCTrCH and auxiliary scheduling transmission information; scheduling E-PUCH physical channel is dynamically configured by the scheduling entity located in the MAC-e of the Node B and is authorized for use by the UE through the E-AGCH channel, and is used to carry the CCTrCH for scheduling the E-DCH transmission channel. . The burst slot format of the unscheduled E-PUCH physical channel and the scheduled E-PUCH physical channel are identical. 2 is a schematic diagram of the principle of the HSUPA of the time division code division multiple access system of the present invention. As shown in FIG. 2, a system for uplink enhanced closed-loop synchronous power control and auxiliary scheduling information transmission, a system for uplink enhanced closed-loop synchronous power control and auxiliary scheduling information transmission, comprising: a MAC-es/e entity, wherein the MAC-es/e The entity includes a multiplexing and sending sequence number setting entity, and the system further includes: an uplink enhanced periodic split channel, configured to transmit auxiliary scheduling information and uplink high layer signaling information, where the channel resource is only allocated to the non-scheduled resource. The user equipment, the related allocation information is sent to the node B through the uplink high-level signaling; the enhanced uplink shared synchronization channel is configured to carry the uplink enhanced uplink physical channel and the uplink enhanced periodic split channel closed-loop synchronization and power information; The MAC-es/e entity further includes: an enhanced transport format combination selection and synchronization control entity, where the entity obtains uplink synchronization control information of the user equipment by enhancing the uplink shared synchronization channel, and transmits the information to the multiplexing and Send the serial number to set the entity. The auxiliary scheduling information access control entity obtains the auxiliary scheduling information by using the uplink enhanced periodic split channel and normalizes the obtained auxiliary scheduling information.
MAC-e 上行信令中的一部分由 2 条新的上行控制信道 7 载, 主要传输 HARQ、 辅助调度相关的信息。 包括 E-UCCH ( E-DCH上行链路控制信道), 用于传输 E-TFCI、 HARQ相关的信息。 E- FDCH, 用于传输辅助调度相关的信 息和上行高层信令信息, 且仅用于调度传输。 E-FDCH 以时分方式由多个 UE 实现资源共享。 新引入下行信令信道 E-AGCH、 E-HICH和 E- USCH。 E-AGCH 用于传输授权信息且仅用于调度传输; E-HICH用于携带上行 E-DCH HARQ指 示信息; E-USCH信道用于携带上行 E-PUCH和 E-FDCH闭环同步和功率控制 信息。 在 TD-SCDMA系统的 HSUPA技术中, HSUPA上行闭环同步功控的方法 包括以下步骤: A part of the MAC-e uplink signaling is carried by two new uplink control channels 7, and mainly transmits HARQ and auxiliary scheduling related information. It includes an E-UCCH (E-DCH uplink control channel) for transmitting E-TFCI and HARQ related information. E-FDCH, used to transmit auxiliary scheduling related information and uplink high layer signaling information, and is only used for scheduling transmission. E-FDCH implements resource sharing by multiple UEs in a time division manner. The downlink signaling channels E-AGCH, E-HICH and E-USCH are newly introduced. E-AGCH is used to transmit authorization information and is only used for scheduling transmission; E-HICH is used to carry uplink E-DCH HARQ indication information; E-USCH channel is used to carry uplink E-PUCH and E-FDCH closed-loop synchronization and power control information . In the HSUPA technology of the TD-SCDMA system, the HSUPA uplink closed-loop synchronous power control method includes the following steps:
( 1 )无线网络控制器 (RNC ) 为节点 B分配调度资源, 为只有调度资源 的用户设备分配上行同步控制物理信道和上行增强周期分裂信道资源, 其中上 行同步控制物理信道用于承载用户上行的同步命令字和上行增强周期分裂信 道功控命令字, 上行增强周期分裂信道用于承载辅助调度信息和上行高层信令 信息; 当在 RNC 中, 确定一个节点 B支持 HSUPA技术时, 首先需要在 RNC 中分配 HSUPA技术相关的信道资源, 包括调度传输 E-PUCH信道资源池, 调 度传输的下行信令信道 E-AGCH, E-HICH, E-USCH信道资源池, 同时为没有 非调度资源的 UE分配 E-FDCH信道资源。 这些信道资源包括信道化码资源, 发射功率资源, 以及用作信道估计的发送码资源。 其中 E- USCH建议采用协议中已定义的 PLCCH (物理层公共控制信道) 信道, 而无需新增信道。 (1) The radio network controller (RNC) allocates a scheduling resource to the Node B, and allocates an uplink synchronization control physical channel and an uplink enhanced periodic split channel resource to the user equipment that only schedules the resource, where the uplink synchronization control physical channel is used to carry the user uplink. The synchronization command word and the uplink enhanced period split channel power control command word, the uplink enhanced period split channel is used to carry the auxiliary scheduling information and the uplink high layer signaling information; when determining, in the RNC, a Node B supports the HSUPA technology, the RNC first needs to be performed at the RNC. Allocating channel resources related to HSUPA technology, including scheduling transmission of E-PUCH channel resource pool, scheduling transmission of downlink signaling channel E-AGCH, E-HICH, E-USCH channel resource pool, and simultaneously allocating UEs without non-scheduled resources E-FDCH channel resource. These channel resources include channelization code resources, transmit power resources, and transmit code resources used as channel estimates. The E-USCH recommends the PLCCH (Physical Layer Common Control Channel) channel defined in the protocol without adding a new channel.
RNC完成上述资源分配后, 可以通过 lub接口的 NBAP协议中的物理共
享言道重配置过程 ( Physical Shared Channel Reconfiguration procedure ) ^夺上述 分配信息发送给 Node B , Node B完成上述资源配置, 并在相应的响应消息中 向 RNC发送配置结果。 FLNC确定为一个 UE的一次业务分配非调度传输和 /或 调度传输资源。 对于非调度传输, RNC分配非调度传榆的 E-PUCH信道资源。 为只有调度传输的 UE分配 E-FDCH信道资源。 After the RNC completes the above resource allocation, it can pass the physical connection in the NBAP protocol of the lub interface. The physical shared channel reconfiguration procedure (the physical shared channel reconfiguration procedure) is sent to the Node B, and the Node B completes the resource configuration, and sends the configuration result to the RNC in the corresponding response message. The FLNC determines to allocate non-scheduled transmissions and/or scheduled transmission resources for one service of one UE. For non-scheduled transmissions, the RNC allocates non-scheduled transmitted E-PUCH channel resources. E-FDCH channel resources are allocated to UEs that only schedule transmission.
RNC完成上述资源分配后, 可以将这些分配信息通过 Iub接口的 NBAP 协议中的无线链路建立 ( Radio Link Setup ) 过程、 无线链路增加 ( Radio Link Addition )、 同步无线链路重 己置准备 ( Synchronised Radio Link Reconfiguration Preparation ) 过程或者异步无线链路重配置 ( Unsynchronised Radio Link Reconfiguration ) 过程中的请求消息发送给 Node B。 After the RNC completes the above resource allocation, the RNB can perform the radio link setup process, the radio link addition, and the synchronous radio link in the NBAP protocol of the Iub interface. Synchronised Radio Link Reconfiguration Preparation The request message during the process or the Unsynchronised Radio Link Reconfiguration is sent to the Node B.
( 2 ) 在初始同步建链过程中, 用户设备通过随机接入过程、 开环同步过 程和开环功控过程完成上行同步建立和上^"开环功率控制。 (2) In the initial synchronous link establishment process, the user equipment completes the uplink synchronization establishment and the upper open loop power control through the random access process, the open loop synchronization process, and the open loop power control process.
( 3 ) 同步建立后, Node B通过 PLCCH信道中的 SS完成 UE上行调度 / 非调度 E- PUCH和 E-FDCH信道的闭环同步, PLCCH还可以承载上行功控控 制命令 ( TPC ), 完成上行闭环功率控制; 在 UE上行同步初始建立时, UE可以通过发起随机接入过程来完成上行 同步的建立。 其具体过程可以参考 3GGP协议。 图 3是本发明的 HSUPA相关的上行闭环同步方法。 在上行同步建立后, Node B 测量上行 E-PUCH或 E- FDCH 到达时间, 生成相应的 SS 命令, 由 PLCCH下行同步控制信道携带, 发送给 UE。 PLCCH同时携带多个 UE的上 行同步控制命令, 以一定的周期发送。 UE 根据同步控制指令来调整上行 E-PUCH或 E-FDCH的发送提前量, 如图 3所示。 在上行同步建立后, Node B 测量 E-FDCH接收功率, 生成相应的 TPC 命令, 由 PLCCH下行信道携带, 发送给 UE。 PLCCH同时携带多个 UE的上 行功率控制命令。 UE根据功率控制指令来调整 E- FDCH的发送功率。 时分码分多址系统辅助调度信息周期性传输的方法, 包括: (3) After synchronization is established, Node B completes the closed-loop synchronization of the UE uplink scheduling/non-scheduled E-PUCH and E-FDCH channels through the SS in the PLCCH channel, and the PLCCH can also carry the uplink power control command (TPC) to complete the uplink closed loop. Power control; When the UE uplink synchronization is initially established, the UE may complete the establishment of the uplink synchronization by initiating a random access procedure. The specific process can refer to the 3GGP protocol. 3 is an HSUPA related uplink closed loop synchronization method of the present invention. After the uplink synchronization is established, the Node B measures the arrival time of the uplink E-PUCH or E-FDCH, and generates a corresponding SS command, which is carried by the PLCCH downlink synchronization control channel and sent to the UE. The PLCCH carries the uplink synchronization control commands of multiple UEs at the same time and transmits them in a certain period. The UE adjusts the transmission advance of the uplink E-PUCH or E-FDCH according to the synchronization control command, as shown in FIG. After the uplink synchronization is established, the Node B measures the E-FDCH received power, generates a corresponding TPC command, and is carried by the PLCCH downlink channel and sent to the UE. The PLCCH carries the uplink power control commands of multiple UEs at the same time. The UE adjusts the transmit power of the E-FDCH according to the power control command. A method for periodically transmitting auxiliary scheduling information by a time division code division multiple access system includes:
( 1 )无线网络控制器为节点 B分配调度资源, 为只有调度资源的用户设 备分配上行同步控制物理信道和上行增强周期分裂信道资源, 其中上行同步控 制物理信道用于承载用户上行的同步命令字和上行增强周期分裂信道功控命
令字, 上行增强周期分裂信道用于承载辅助调度信息和上行高层信令信息; (1) The radio network controller allocates a scheduling resource to the Node B, and allocates an uplink synchronization control physical channel and an uplink enhanced periodic split channel resource to the user equipment that only schedules the resource, where the uplink synchronization control physical channel is used to carry the uplink synchronization command word of the user. And uplink enhanced period split channel power control The command, the uplink enhanced periodic split channel is used to carry the auxiliary scheduling information and the uplink high layer signaling information;
( 2 ) 当 UE需要上传辅助调度信息时, 可以通过最近的可用上行资源进 行传输, 这些资源包括非调度 E-PUCH、 授权的调度 E-PUCH和 E-FDCH。 图 4是本发明的 HSUPA上行辅助调度信息传输方法流程图。如图 4所示, 步骤 (2 )具体为: (2) When the UE needs to upload the auxiliary scheduling information, it may transmit through the latest available uplink resources, including the unscheduled E-PUCH, the authorized scheduling E-PUCH, and the E-FDCH. 4 is a flow chart of a method for transmitting HSUPA uplink auxiliary scheduling information according to the present invention. As shown in Figure 4, step (2) is specifically:
( 21 )判断 UE是否有非调度 E-PUCH资源, 若有, 则将其辅助调度信息 (包括 UE緩冲区占用信息、 路损信息、 UE剩余功率资源)可以在 E-PUCH 中以 MAC- e PDU的形式发送到 Node B; 若没有, 则转入步骤( 22 ); (21) determining whether the UE has a non-scheduled E-PUCH resource, and if yes, the auxiliary scheduling information (including the UE buffer occupancy information, the path loss information, and the UE residual power resource) may be MAC-in the E-PUCH. The e PDU is sent to the Node B; if not, the process proceeds to step (22);
( 22 )判断 UE是否有调度资源授权 E-PUCH资源,若有则将其辅助调度 信息可以和 UE上下业务数据复合后在 4吏权的 E-PUCH 4言道中传输; 若没有, 则转入步聚 ( 23 ); (22) determining whether the UE has the scheduling resource to authorize the E-PUCH resource, and if so, the auxiliary scheduling information may be combined with the uplink and downlink service data of the UE, and then transmitted in the E-PUCH 4 channel of the 4 吏 right; if not, the transfer is performed. Step (23);
( 23 )判断 UE是否有 E- FDCH, 若有, 则 UE通过所分配的 E-FDCH信 道传输辅助调度信息, 若没有, 则将当前传输时间间隔值加 1 , 并在一个调度 周期到来后, 用户设备进行辅助调度信息测量。 UE可以根据自己的资源分配情况选择在那个信道上发送辅助调度相关信 息, 其中, 辅助调度信息总是承载最近的相关测量信息。 (23) determining whether the UE has an E-FDCH, if yes, the UE transmits the auxiliary scheduling information through the allocated E-FDCH channel, and if not, adds the current transmission time interval value to 1, and after a scheduling period arrives, The user equipment performs auxiliary scheduling information measurement. The UE may select to send auxiliary scheduling related information on that channel according to its own resource allocation situation, wherein the auxiliary scheduling information always carries the latest relevant measurement information.
( 3 ) Node B 可以从 E- PUCH和 E-FDCH信道中获得最新的 UE资源请 求信息和 UE功率余量和路损信息, 作为快速调度算法的参考依据。 在 Node B中的快速调度算法负责对调度资源的分配。 为了能够合理高效 的分配资源, 满足 QoS服务质量, 降低上行干扰, 调度算法需要知道 UE当前 緩冲区中待传信息总量, 当前的路损信息、 邻区的干扰信息, 以及 UE的发射 功率余量。 Node B可以及时从 E- PUCH和 E-FDCH信道中获取相关信息。 由 于调度 E- PUCH资源分配取决于 Node B的资源授权, 并不是所有的 UE都可 以总是获得资源授权, 则 E-FDCH保证了没有获得调度资源授权的 UE及时的 上报相关辅助调度信息。 Node B根据这些上报信息, 更好的调整调度资源分配 策略。 (3) Node B can obtain the latest UE resource request information and UE power headroom and path loss information from the E-PUCH and E-FDCH channels, as a reference for the fast scheduling algorithm. The fast scheduling algorithm in Node B is responsible for the allocation of scheduling resources. In order to allocate resources reasonably and efficiently, satisfy QoS service quality, and reduce uplink interference, the scheduling algorithm needs to know the total amount of information to be transmitted in the current buffer of the UE, the current path loss information, the interference information of the neighboring cell, and the transmit power of the UE. margin. Node B can obtain relevant information from the E-PUCH and E-FDCH channels in time. Since the scheduling of the E-PUCH resource allocation depends on the resource authorization of the Node B, not all UEs can always obtain the resource authorization, and the E-FDCH ensures that the UE that does not obtain the scheduling resource authorization timely reports the relevant auxiliary scheduling information. Based on these reported information, the Node B can better adjust the scheduling resource allocation policy.
( 4 ) E-FDCH可以用来承载 UE的上行 RRC层信令信息。 Node B负责 区分 E-FDCH中携带的是辅助调度信息还是高层信令信息。
( 5 )节点 B通过测量上 4于增强周期分裂信道的波束到达角 , 周期性的获 得用户设备的方位信息, 该信息可用于智能天线的波束赋形。 为了进一步提高 E-FDCH资源的利用率, UE的上行 R C层信令也可以 通过 E-FDCH信道传输。 Node B为了能够区别 E-FDCH信道中携带的是辅助 调度信息或 RRC信令, 可以采用一些特殊的技术。 如利用正、 反 CRC校 3 来 区分, 这一技术在 TD- CDMA系统 HSUPA技术中被用于区分 PRACH信道和 E-RUCCH信道。 采用正、 反 CRC校验技术后, E-FDCH信道即可以中止于 Node B,也可以中止于 RNC。 这种方法可以有效提高资源的利用率。
(4) The E-FDCH can be used to carry uplink RRC layer signaling information of the UE. The Node B is responsible for distinguishing whether the E-FDCH carries the auxiliary scheduling information or the high layer signaling information. (5) The Node B periodically obtains the orientation information of the user equipment by measuring the beam arrival angle of the upper 4 split channel of the enhanced period, and the information can be used for beamforming of the smart antenna. In order to further improve the utilization of the E-FDCH resources, the uplink RC layer signaling of the UE may also be transmitted through the E-FDCH channel. In order to distinguish between the auxiliary scheduling information or the RRC signaling carried in the E-FDCH channel, the Node B may adopt some special technologies. This technique is used in the TD-CDMA system HSUPA technology to distinguish between the PRACH channel and the E-RUCCH channel, as distinguished by the positive and negative CRC schools 3. After using the positive and negative CRC check techniques, the E-FDCH channel can be terminated at Node B or suspended at the RNC. This method can effectively improve the utilization of resources.
Claims
上行增强闭环同步功控和辅助调度信息传输的系统, 包括: MAC-es/e实 体, 其中该 MAC-es/e 实体包括复用和发送序列号设置实体, 其特征在 于, 该系统还包括: The system for uplink enhanced closed-loop synchronous power control and auxiliary scheduling information transmission includes: a MAC-es/e entity, wherein the MAC-es/e entity includes a multiplexing and sending sequence number setting entity, and the system further includes:
上行增强周期分裂信道,用于传输辅助调度信息和上行高层信令信 息, 该信道资源只分配给没有非调度资源的用户设备, 其相关分配信息 通过上行高层信令发送权给节点 B; The uplink enhanced periodic split channel is used for transmitting the auxiliary scheduling information and the uplink high-level signaling information, and the channel resource is only allocated to the user equipment without the non-scheduled resource, and the related allocation information is sent to the node B through the uplink high-layer signaling;
增强上行共享同步信道,用于携带上行增强上行物理信道和上行增 强周期分裂信道闭环同步和功率信息; The uplink shared synchronization channel is enhanced to carry the uplink enhanced uplink physical channel and the uplink enhanced periodic split channel closed-loop synchronization and power information;
其中, 所述 MAC-es/e实体还包括: The MAC-es/e entity further includes:
增强传输格式组合选择和同步控制书实体,该实体通过增强上行共享 同步信道获得用户设备的上行同步控制信息, 并将所述信息传送给复用 和训练序列号设置实体。 The enhanced transport format combination selection and synchronization control book entity obtains uplink synchronization control information of the user equipment by enhancing the uplink shared synchronization channel, and transmits the information to the multiplexing and training sequence number setting entity.
辅助调度信息接入控制实体, 该实体通过上行增强周期分裂信道 获得辅助调度信息并对获得的辅助调度信息进行规整。 时分码分多址系统中上行增强闭环同步功控的方法, 其特征在于, 包括: The auxiliary scheduling information access control entity obtains the auxiliary scheduling information by using the uplink enhanced periodic split channel and normalizes the obtained auxiliary scheduling information. A method for uplink enhanced closed-loop synchronous power control in a time division code division multiple access system, characterized in that:
( 1 ) 无线网络控制器为节点 B分配调度资源, 为只有调度资源的 用户设备分配上行同步控制物理信道和上行增强周期分裂信道资源, 其 中上行同步控制物理信道用于承载用户上行的同步命令字和上行增强周 期分裂信道功控命令字, 上行增强周期分裂信道用于承载辅助调度信息 和上行高层信令信息; (1) The radio network controller allocates a scheduling resource to the Node B, and allocates an uplink synchronization control physical channel and an uplink enhanced periodic split channel resource to the user equipment that only schedules the resource, where the uplink synchronization control physical channel is used to carry the uplink synchronization command word of the user. And an uplink enhanced periodic split channel power control command word, where the uplink enhanced periodic split channel is used to carry auxiliary scheduling information and uplink high layer signaling information;
( 2 ) 用户设备通过随机接入过程、 开环同步过程和开环功 4空过程 完成上^"同步建立和上亍开环功率控制; (2) The user equipment completes the upper synchronization synchronization and the open loop power control through the random access process, the open loop synchronization process, and the open loop function.
( 3 ) 节点 B通过增强上行共享同步信道中的同步偏移命令完成用 户设备的上行调度或完成非调度增强上行物理信道和上行增强周期分裂 信道的闭环同步; (3) Node B completes the uplink scheduling of the user equipment or completes the closed-loop synchronization of the non-scheduled enhanced uplink physical channel and the uplink enhanced periodic split channel by enhancing the synchronization offset command in the uplink shared synchronization channel;
( 4 ) 节点 B通过增强上行共享同步信道中的功控命令完成用户设 备的上行增强周期分裂信道的闭环功率控制。 π
根据权利要求 2所述的时分码分多址系统中上行增强闭环同步功控的方 法, 其特征在于, 所述步骤 (3 )具体为: (4) The Node B completes the closed loop power control of the uplink enhanced periodic split channel of the user equipment by enhancing the power control command in the uplink shared synchronization channel. π The method for uplink-enhanced closed-loop synchronous power control in the time division code division multiple access system according to claim 2, wherein the step (3) is specifically:
( 31 )节点 B测量增强上行物理信道或上行增强周期分裂信道的到 达时间, 生成同步偏移命令, 并由物理层公共控制信道将所迷命令周期 性发送给用户设备; (31) the node B measures the arrival time of the enhanced uplink physical channel or the uplink enhanced periodic split channel, generates a synchronization offset command, and sends the command periodically to the user equipment by the physical layer common control channel;
( 32 )用户设备根据同步偏移命令调整增强上行物理信道或上行增 强周期分裂信道的发送提前量, 完成上行闭环同步。 据权利要求 2所述的时分码分多址系统中上行增强闭环同步功控的方 法, 其特征在于, 所述的步骤 (4 )具体为: (32) The user equipment adjusts the transmission advance amount of the enhanced uplink physical channel or the uplink enhanced period split channel according to the synchronization offset command, and completes the uplink closed loop synchronization. The method of uplink enhanced closed-loop synchronous power control in the time division code division multiple access system according to claim 2, wherein the step (4) is specifically:
( 41 )节点 B测量行增强周期分裂信道的接收功率, 生成功率控制 命令, 并由物理层公共控制信道将所述功率控制命令发送给用户设备; (41) the Node B measures the received power of the enhanced periodic split channel, generates a power control command, and sends the power control command to the user equipment by the physical layer common control channel;
( 42 )用户设备根据功率控制命令调整行增强周期分裂信道的发送 功率, 完成上行闭环功率控制。 时分码分多址系统中辅助调度信息周期性传输的方法, 其特征在于, 包 括: (42) The user equipment adjusts the transmit power of the line enhanced period split channel according to the power control command, and completes the uplink closed loop power control. A method for periodically transmitting auxiliary scheduling information in a time division code division multiple access system, characterized in that:
( 1 ) 无线网络控制器为节点 B分配调度资源, 为只有调度资源的 用户设备分配上行同步控制物理信道和上行增强周期分裂信道资源, 其 中上行同步控制物理信道用于承载用户上行的同步命令字和上行增强周 期分裂信道功控命令字, 上行增强周期分裂信道用于承载辅助调度信息 和上行高层信令信息; (1) The radio network controller allocates a scheduling resource to the Node B, and allocates an uplink synchronization control physical channel and an uplink enhanced periodic split channel resource to the user equipment that only schedules the resource, where the uplink synchronization control physical channel is used to carry the uplink synchronization command word of the user. And an uplink enhanced periodic split channel power control command word, where the uplink enhanced periodic split channel is used to carry auxiliary scheduling information and uplink high layer signaling information;
( 2 ) 用户设备判断是否需要上传辅助调度信息, 若需要上传, 则 通过已分配的上行增强周期分裂信道进行传输; 若不需要, 则步骤结束。 根据权利要求 5所述的时分码分多址系统辅助调度信息周期性传输的方 法, 其特征在于, 进一步的还包括: (2) The user equipment determines whether it is necessary to upload the auxiliary scheduling information. If it needs to upload, it transmits through the allocated uplink enhanced period split channel; if not, the step ends. The method for periodically transmitting the secondary scheduling information in the time division code division multiple access system according to claim 5, further comprising:
( 3 ) 节点 B通过上传的辅助调度信息获得用户设备资源请求信息 和用户 iS:备功率余量和路损^ "息。 根据权利要求 5所述的时分码分多址系统辅助调度信息周期性传输的方 法, 其特征在于, 进一步的还包括: (3) The Node B obtains the user equipment resource request information and the user iS by using the uploaded auxiliary scheduling information: the standby power margin and the path loss information. The time division code division multiple access system according to claim 5 assists the scheduling information periodicity. The method for transmitting is characterized in that: further comprising:
( 4 ) 上行增强周期分裂专用信道承载用户设备的上行无线资源控
制层信令信息。 (4) Uplink enhanced period split dedicated channel carries uplink radio resource control of user equipment Layer layer signaling information.
8, 根据权利要求 5所述的时分码分多址系统辅助调度信息周期性传输的方 法, 其特征在于, 进一步的还包括: The method for periodically transmitting the secondary scheduling information in the time division code division multiple access system according to claim 5, further comprising:
( 5 ) 节点 B通过测量上行增强周期分裂信道的波束到达角, 周期 性的获得用户设备的方位信息, 该信息可用于智能天线的波束赋形。 (5) Node B obtains the orientation information of the user equipment periodically by measuring the beam arrival angle of the uplink enhanced periodic split channel, and the information can be used for beamforming of the smart antenna.
9. 根据权利要求 5所述的时分码分多址系统辅助调度信息周期性传输的方 法, 其特征在于: 所述步骤(2 )具体为: The method for periodically transmitting auxiliary scheduling information in a time division code division multiple access system according to claim 5, wherein: the step (2) is specifically:
( 21 ) 判断用户设备是否具有非调度增强上行专用物理信道资源, 若有, 则在上行增强专用物理信道上传送辅助调度信息; 若没有, 则转 入步骤(22 ); (21) determining whether the user equipment has a non-scheduled enhanced uplink dedicated physical channel resource, if yes, transmitting the auxiliary scheduling information on the uplink enhanced dedicated physical channel; if not, proceeding to step (22);
( 22 )判断用户设备是否具有授权调度资源, 若有, 则在授权上行 增强专用物理信道上传输辅助调度信息, 若没有, 则转入步骤( 23 ); (22) determining whether the user equipment has the authorized scheduling resource, if yes, transmitting the auxiliary scheduling information on the authorized uplink enhanced dedicated physical channel, if not, proceeding to step (23);
( 23 )判断用户设备是否具有上行增强周期分裂专用信道资源, 若 有, 在其分配的上行增强周期分裂专用信道上传输辅助调度信息; 若没 有, 则步 ¾结束。
(23) determining whether the user equipment has an uplink enhanced period split dedicated channel resource, and if yes, transmitting the auxiliary scheduling information on the allocated uplink enhanced period split dedicated channel; if not, the step ends.
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CN1767410A (en) * | 2005-11-25 | 2006-05-03 | 凯明信息科技股份有限公司 | Discontinuous transmitting state power control method in TD-SCDMA system |
WO2006079689A1 (en) * | 2005-01-25 | 2006-08-03 | Nokia Siemens Networks Oy | Method of reducing interference in indoor cell in wireless cellular communication network |
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WO2006079689A1 (en) * | 2005-01-25 | 2006-08-03 | Nokia Siemens Networks Oy | Method of reducing interference in indoor cell in wireless cellular communication network |
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