WO2011160522A1 - 一种无线资源调度方法、接入网网元及终端 - Google Patents

一种无线资源调度方法、接入网网元及终端 Download PDF

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Publication number
WO2011160522A1
WO2011160522A1 PCT/CN2011/074488 CN2011074488W WO2011160522A1 WO 2011160522 A1 WO2011160522 A1 WO 2011160522A1 CN 2011074488 W CN2011074488 W CN 2011074488W WO 2011160522 A1 WO2011160522 A1 WO 2011160522A1
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Prior art keywords
terminal
network element
access network
feature information
service
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PCT/CN2011/074488
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English (en)
French (fr)
Inventor
戴谦
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中兴通讯股份有限公司
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Application filed by 中兴通讯股份有限公司 filed Critical 中兴通讯股份有限公司
Priority to KR1020127019647A priority Critical patent/KR101386052B1/ko
Priority to BR112012017538-6A priority patent/BR112012017538B1/pt
Priority to JP2012549247A priority patent/JP5568143B2/ja
Priority to US13/520,006 priority patent/US8787290B2/en
Priority to EP11797553.2A priority patent/EP2515597B1/en
Priority to MX2012008807A priority patent/MX2012008807A/es
Publication of WO2011160522A1 publication Critical patent/WO2011160522A1/zh

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Classifications

    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W72/00Local resource management
    • H04W72/12Wireless traffic scheduling
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W72/00Local resource management
    • H04W72/20Control channels or signalling for resource management
    • H04W72/21Control channels or signalling for resource management in the uplink direction of a wireless link, i.e. towards the network
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W72/00Local resource management
    • H04W72/20Control channels or signalling for resource management
    • H04W72/23Control channels or signalling for resource management in the downlink direction of a wireless link, i.e. towards a terminal
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W48/00Access restriction; Network selection; Access point selection
    • H04W48/16Discovering, processing access restriction or access information

Definitions

  • Radio resource scheduling method access network element and terminal
  • the present invention relates to the field of wireless communication technologies, and in particular, to a radio resource scheduling method, an access network element, and a terminal of a broadband wireless communication system.
  • the uplink radio resource scheduling of the existing broadband wireless communication system generally follows the following methods: (1) First, the terminal sends a scheduling request or a bandwidth request to the base station according to its own service data amount.
  • the base station determines whether to allocate uplink radio resources to the terminal according to the application of the terminal, combined with the channel condition and the traffic load condition.
  • the base station decides to allocate radio resources to the terminal, it transmits uplink resource allocation signaling to the terminal to inform the terminal which uplink resource to use to transmit data.
  • the foregoing method can better support services of existing mobile terminals, such as Voice over Internet Protocol (VoIP) services, network game services, wireless video services, and File Transfer Protocol (FTP) services.
  • VoIP Voice over Internet Protocol
  • FTP File Transfer Protocol
  • the above-mentioned business is mainly used for Human to Human (H2H) communication.
  • M2M Machine to Machine
  • 3GPP 3rd Generation Partnership Project
  • MTC Machine Type Communication
  • M2M machine-to-machine communication
  • a networked application and service centered on intelligent interaction of machine terminals. It is used in intelligent machine terminals to provide customers with information solutions by means of multiple communication methods. It is used to meet customers' information needs for monitoring, command scheduling, data collection and measurement.
  • the business types are very wide, such as household meter reading, industrial production instrumentation Dynamics, water quality monitoring, intelligent transportation, asset tracking, etc.
  • some of the uplink (UpLink, UL) data transmission of the service is fixed in one or several types, such as some in industrial production. Instrumentation, portable health monitors, and equipment in the field of asset tracking; the uplink data transmission of some services is fluctuating and not fixed, such as consumer electronics and intelligent transportation systems.
  • the scheduling process does not distinguish whether the uplink data size of the service is fixed.
  • LTE Long Term Evolution
  • step S110 when the terminal has UL data to be transmitted (step S110), the terminal sends a scheduling request (Scheduling Request, SR) to the access network element (in LTE, the access network element is Evolved base station (eNodeB, eNB)) (step S120); the access network element performs the first UL resource scheduling on the terminal (step S130), and the first allocated UL resource is usually small to avoid excessive allocation of resources that may occur.
  • the terminal sends a Buffer Status Report (BSR) to the access network element to report the amount of data to be uploaded (step S140) on the UL resource allocated by the access network element (step S140);
  • BSR Buffer Status Report
  • the terminal For such M2M services in which the amount of UL data transmitted per time is not fixed, it is necessary for the terminal to transmit the SR and the BSR to the base station due to the unpredictability of the amount of UL data; however, the amount of UL data for each transmission is fixed or Regular M2M services of this kind, due to the predictability of the amount of UL data, it is redundant for the terminal to send SR and BSR to the base station.
  • the first UL resource scheduling performed by the access network element after receiving the SR because the amount of UL data to be transmitted is unknown, the access network element usually allocates less UL resources to the terminal, so as to avoid waste. This further leads to delay in packet transmission of the terminal and a decrease in data throughput of the terminal.
  • M2M is widely used.
  • the redundancy described constitutes an additional signaling overhead that cannot be ignored, which affects system throughput and also introduces additional UL scheduling delay.
  • the delay in packet transmission of the terminal may also result in a decrease in the satisfaction of the terminal.
  • the present invention provides a radio resource scheduling method, where the method includes: an access network element obtains uplink (UL) data feature information corresponding to a service supported by the terminal; Waiting for the UL resource scheduling signaling of the access network element when the initiated service has regularity or predictability; and the service initiated by the access network element in the terminal has regularity or predictability And transmitting, according to the UL data feature information corresponding to the service initiated by the terminal, the UL resource scheduling signaling to the terminal, and performing UL resource scheduling on the terminal.
  • UL uplink
  • the UL data feature information corresponding to the service supported by the terminal includes a data model feature of the service supported by the terminal or a data packet size information of the service supported by the terminal.
  • the data model feature includes one or more of the following information: whether the packet size range is fixed, the number of packet types in which the packet size range is fixed, whether the data packet is sent only once, and the data packet Whether the transmission has periodicity, a certain data packet transmission has periodicity, and the transmission period of the data packet, the transmission order between the data packets with different fixed size ranges meets a fixed law, and the fixed rule conforms to the transmission sequence .
  • the packet size information of the service supported by the terminal includes one or more of the following information: an actual value or an actual value range of the packet size, a level at which the packet size range is located, and a data according to the data.
  • the step that the access network element obtains the UL data feature information corresponding to the service supported by the terminal includes: the access network element from the core network element, the machine type communication (MTC) server, or Said The terminal obtains UL data feature information corresponding to the service supported by the terminal.
  • MTC machine type communication
  • the access network element when the access network element obtains the UL data feature information corresponding to the service supported by the terminal from the core network element, the UL data feature information corresponding to the service supported by the terminal is saved in the The core network element, the registration information corresponding to the terminal includes the UL data feature information corresponding to the service supported by the terminal, and the access network element obtains the service supported by the terminal from the MTC server.
  • the UL data feature information the UL data feature information corresponding to the service supported by the terminal is stored in the MTC server.
  • the UL data feature information corresponding to the service initiated by the terminal is transmitted by the core network element to the access network element through the S1 interface signaling process, or is adopted by the MTC server.
  • the S1 interface signaling process includes S1 interface signaling in the terminal context initialization process, S1 interface signaling in the terminal context change process, or newly added S1 interface signaling.
  • the step of the access network element obtaining the UL data feature information corresponding to the service supported by the terminal from the terminal includes: reporting, by the terminal, the UL data in a process of establishing a connection with the network side Feature information.
  • the process of establishing a connection between the terminal and the network side includes: a random access procedure of the terminal, a radio resource control (RRC) layer connection establishment process with the access network element, and the access The RRC layer connection reconfiguration process of the network element or the RRC layer connection reestablishment process with the access network element.
  • RRC radio resource control
  • the step of the terminal to report the UL data feature information in the process of establishing a connection with the network side includes: the terminal reporting the UL corresponding to the service supported by the terminal in the message 3 of the random access procedure Data feature information; or the terminal reporting the UL data feature information corresponding to the service supported by the terminal in the connection request message or the connection establishment complete message of the RRC layer connection establishment process; or the terminal is connected in the RRC layer Reporting in the connection reconfiguration completion message of the configuration process
  • the UL data feature information corresponding to the service supported by the self-supported service or the terminal reporting the UL data feature information corresponding to the service supported by the terminal in the connection re-establishment request message or the connection re-establishment completion message of the RRC layer connection re-establishment process.
  • the method further includes: the terminal sending a scheduling request to the network element of the access network; and the UL data feature information corresponding to the service initiated by the terminal after the network element of the access network receives the scheduling request Sending the UL resource scheduling signaling to the terminal.
  • the method further includes: the access network element does not receive the data reported by the terminal at the UL scheduling location, stops scheduling, and waits for the terminal to report the scheduling request and the UL data volume size information report.
  • the present invention further provides an access network element, where the access network element includes an obtaining module and a sending module, where: the obtaining module is configured to: obtain a service corresponding to the service supported by the terminal Uplink (UL) data feature information; the sending module is configured to: when the service initiated by the terminal has regularity or predictability, according to UL data feature information corresponding to the service initiated by the terminal, Transmitting the UL resource scheduling signaling to the terminal, and performing UL resource scheduling on the terminal.
  • the access network element includes an obtaining module and a sending module, where: the obtaining module is configured to: obtain a service corresponding to the service supported by the terminal Uplink (UL) data feature information; the sending module is configured to: when the service initiated by the terminal has regularity or predictability, according to UL data feature information corresponding to the service initiated by the terminal, Transmitting the UL resource scheduling signaling to the terminal, and performing UL resource scheduling on the terminal.
  • UL Uplink
  • the acquiring module is configured to obtain UL data feature information corresponding to the service supported by the terminal in the following manner: obtaining the device from the core network element, the machine type communication (MTC) server, or the terminal The UL data feature information corresponding to the service supported by the terminal.
  • the acquiring module is configured to obtain UL data feature information corresponding to the service supported by the terminal in the following manner: a random access process in the terminal, the access network element and the The RRC layer connection establishment process of the terminal, the RRC layer connection reconfiguration process with the access network element, or the RRC layer connection reestablishment process of the access network element to obtain the UL corresponding to the service supported by the terminal Data feature information.
  • the present invention further provides a terminal, where the terminal includes a sending module, a service initiating module, and a receiving module, where: the sending module is configured to: uplink corresponding to the service supported by the terminal The (UL) data feature information is sent to the access network element; the service initiation module is configured to: initiate a service; and the receiving module is configured to: receive the UL resource scheduling signaling sent by the access network element; And the access network element is configured to send the UL resource scheduling signaling according to the UL data feature information corresponding to the service initiated by the service initiation module.
  • the sending module is configured to: uplink corresponding to the service supported by the terminal
  • the (UL) data feature information is sent to the access network element
  • the service initiation module is configured to: initiate a service
  • the receiving module is configured to: receive the UL resource scheduling signaling sent by the access network element
  • the access network element is configured to send the UL resource scheduling signaling according to the UL data feature information corresponding to the service initiated by the service initiation module.
  • the sending module is configured to send UL data feature information corresponding to the service supported by the UE to the access network element in the following manner: a random access procedure in the terminal, and the access
  • the RRC layer connection establishment process of the network element, the RRC layer connection reconfiguration process with the access network element, or the RRC layer connection reestablishment process with the access network element, and the service area supported by the self Corresponding UL data feature information is sent to the access network element.
  • the resource scheduling technology proposed by the technical solution of the present invention can make the UL resource scheduling more controllable signaling by changing the existing scheduling process for the service with regular or predictable UL data volume. And reduce scheduling delay, improve wireless spectrum efficiency and system throughput, and enhance user experience.
  • FIG. 1 is a flowchart of a method for scheduling a UL resource by an eNodeB in an existing LTE technology
  • FIG. 2 is a flowchart of a method for scheduling a radio resource according to an embodiment of the present invention
  • FIG. 4 is a flowchart of establishing an RRC connection of a terminal according to the present invention
  • 5 is a flowchart of RRC connection reconfiguration of a terminal according to the present invention
  • FIG. 6 is a flowchart of RRC connection reestablishment of a terminal according to the present invention
  • FIG. 1 is a flowchart of a method for scheduling a UL resource by an eNodeB in an existing LTE technology
  • FIG. 4 is a flowchart of establishing an RRC connection of a terminal according to the present invention
  • 5 is a flowchart of RRC connection reconfiguration of a terminal according to the present invention
  • FIG. 6 is a flowchart of RRC connection reestablishment of a terminal
  • FIG. 7 is a flowchart of a Mobile Original scenario according to an embodiment of the present invention
  • 8 is a flow chart of a Mobile Terminating scenario according to an embodiment of the present invention
  • FIG. 9 is a schematic diagram of a composition of an access network element according to Embodiment 2 of the present invention. Composition diagram.
  • the radio resource scheduling method is as shown in FIG. 2.
  • the embodiment mainly includes the following steps: Step S210: The access network element obtains UL data feature information corresponding to the service supported by the terminal; Step S220, the terminal completes and connects. Random access and wireless resource control of network access network elements (Radio
  • Step S230 if the terminal determines that the initiated service has regularity or predictability, it does not need to send a pending UL data size information report (or a buffer status report) to the access network network element. Waiting for UL resource scheduling signaling of the access network element; In step S240, the access network element does not need to wait for the terminal to send the UL data size information to be transmitted, and sends the UL resource scheduling signaling to the terminal according to the UL data feature information corresponding to the service initiated by the terminal.
  • Step S250 If the access network element does not receive the data reported by the terminal in the UL scheduling position, the access network element stops the active scheduling, and waits for the terminal to report the scheduling request according to the prior art process. And UL data volume size information report.
  • the above UL data feature information includes but is not limited to:
  • the data model characteristics of the corresponding service including one or more of the following: (1) whether the packet size range is fixed; the fixed range means that the fluctuation (or variance) of the packet size is less than a predetermined threshold. ;
  • the packet size information of the corresponding service may not include the information of the service type whose data packet size range is not fixed.
  • the packet size information of the corresponding service can be implemented in one of several ways:
  • the packet size type divided by the packet size range for example, the service is labeled as "short data” (short data length), "non-short data", etc. Each type corresponds to a different packet size range. .
  • the method for the access network element to obtain the UL data feature information includes but is not limited to:
  • the implementation manner of obtaining the UL data feature information from the core network element by the access network element in the scenario (A) includes but is not limited to: Step (A1), UL data corresponding to the service supported by the terminal
  • the feature information is stored in a core network element or a machine type communication (MTC) server; and in step (A2), the UL data feature information corresponding to the service initiated by the terminal is sent to the access network element to assist the UL of the terminal. Scheduling.
  • MTC machine type communication
  • the UL data feature information in the step (A1) is stored in the core network element or the MTC server, including but not limited to: the situation (Ala): the UL data feature information of the service supported by the terminal is included in the registration information corresponding to the terminal. , or case (Alb): The UL data feature information of the service supported by the terminal is stored in the MTC server.
  • the UL data feature information in step (A2) is sent to the access network element, including but not limited to: case (A2a): the core network element performs the UL data feature through an S1 interface signaling process.
  • the information is transmitted to the base station, or the situation (A2b): the MTC server forwards the UL data feature information to the access network element through the core network element.
  • the manner in which the core network element described in the scenario (A2a) transmits the UL data feature information to the base station through the SI interface signaling process includes but is not limited to: the core network element inserts the UL data feature information into the existing S1 interface.
  • the signaling is sent, for example, the S1 interface signaling in the terminal context initialization process, or the S1 interface signaling in the terminal context change process, or a new S1 interface signaling is added.
  • the implementation manner of obtaining the UL data feature information from the terminal by the access network element in the scenario (B) includes but is not limited to: the situation (B1): the terminal reports the UL data feature information in the process of establishing a connection with the network side, and implements The method includes, but is not limited to: the situation (Bla): the terminal reports the UL data feature information in the random access process, for example, the terminal reports the UL data feature information in the message 3 (msg3) in the random access process; Case (Bib): terminal The UL data feature information is reported in the RRC connection establishment process, for example, the terminal reports the UL data feature information in the RRC connection request message, or the terminal reports the UL data feature information in the RRC connection setup complete message; Case (Blc): The terminal is in the RRC connection.
  • the UL data feature information is reported in the reconfiguration process.
  • the terminal reports the UL data feature information in the RRC connection reconfiguration complete message.
  • the UL data feature information is reported in the request message, or the terminal reports the UL in the RRC connection reestablishment complete message.
  • the "data feature has predictability" in the above step S220 means that the data packet size range is fixed, and the transmission has a fixed rule, and the eNB can predict in advance the size range and the sending time of the next data packet to be sent by the terminal according to the feature information.
  • the terminal may send a scheduling request to the access network element and wait for the UL resource scheduling signaling sent by the access network element.
  • the access network element needs to wait for the scheduling request reported by the terminal, and receives the scheduling request.
  • the UL resource scheduling information is sent to the terminal according to the UL data feature information corresponding to the service initiated by the terminal, and the UL resource scheduling is performed on the terminal.
  • the terminal may not directly report the scheduling request, but directly wait for the UL resource scheduling signaling sent by the access network element; in step S240, the access network element does not need to wait for the terminal to send the scheduling request and the UL to be transmitted.
  • the data volume size information directly transmits the UL resource scheduling signaling to the terminal according to the UL data feature information corresponding to the service initiated by the terminal, and performs UL resource scheduling on the terminal.
  • An application example of this embodiment is an application in an LTE system.
  • the core network element is a Mobility Management Element (MME), and the access network element is an eNodeB (referred to as an eNB), and the registration information of the terminal is stored in the home.
  • MME Mobility Management Element
  • eNB eNodeB
  • HSS User Subscriber Server
  • the eNB needs to perform the radio resource scheduling according to the present invention on the terminal, and firstly obtains the UL data feature information of the terminal.
  • the obtaining manner includes: the access network element obtains the UL data feature information corresponding to the service supported by the terminal from the core network element; or the access network element obtains the UL data feature corresponding to the service supported by the terminal from the terminal. information.
  • the manner in which the access network element obtains the UL data feature information from the core network element includes: including, in the corresponding registration information of the terminal, UL data feature information of the service supported by the terminal (for example, stored in the HSS), or in the MTC server. Contains UL data characteristic information of services supported by the terminal.
  • the manner in which the UL data feature information of the terminal is sent to the access network element includes:
  • the core network element transmits the UL data feature information to the base station through the S1 interface signaling process.
  • the core network element transmits the UL data feature information to the base station through the S1 interface signaling process.
  • the access network element obtains the UL data feature information from the MTC server, it also needs to complete the forwarding process of the core network element.
  • the UL data feature information may be reported in the process of establishing the connection between the terminal and the network side;
  • the manner of reporting the UL data feature information in the process of the connection includes: the terminal reporting the UL data feature information in the random access process; for example, reporting the UL data feature information in the message 3 (msg3) (refer to FIG.
  • the msg3 is shown in the figure,
  • the first scheduling performed by the eNB to the UE in the random access process is used to indicate the transmission resource of the msg4); or the terminal reports the UL data feature information in the RRC connection establishment process, for example, reporting the UL data feature information in the RRC connection request message, Or reporting the UL data feature information in the RRC connection setup complete message (refer to FIG.
  • the terminal reporting the UL data feature information in the RRC connection reconfiguration process for example, reporting the UL data feature information in the RRC connection reconfiguration complete message (refer to Figure 5); or the terminal reports UL data feature information in the RRC connection reestablishment process; for example, in the RRC connection reestablishment request
  • the UL data feature information is reported in the message, or the UL data feature information is reported in the RRC connection reestablishment completion message (refer to FIG. 6).
  • the UL data feature information includes: a data model feature of the UL data of various services supported by the terminal, and a packet size information of the corresponding service (for a service type whose data packet size is not fixed, the information may not be included) ).
  • What kind of data model features are available for UL data of various services supported by the above terminals, for example: (1) Whether the range of data packet size is fixed; the fixed range means that the fluctuation (or variance) of the packet size is less than a predetermined threshold;
  • the eNB can predict the next data to be sent by the terminal in advance based on the feature information.
  • the size range and transmission time of the packet for example: a packet service with a fixed size range of a single transmission, a packet service with a fixed range of periodic transmission, etc.; in contrast, there is no regularity or predictability
  • the service indicates that the data packet size range is not fixed, or there are multiple data packets of a fixed size range but the order of transmission between them is not fixed.
  • the eNB can perform UL resource scheduling according to its data feature information.
  • the data model features described above are merely examples, and there are other more types and classification methods that do not affect the essence of the present invention.
  • the packet size information of the corresponding service can be implemented in one of the following ways:
  • the actual value or actual value range of the packet size such as a specific value in units of bytes (Byte) or in bits (Bit); or (2) the size of the packet expressed in levels, such as data.
  • the packet size is divided into several levels, each level representing a range of different packet sizes; or (3) According to the size range of the packet, the type is roughly classified, for example, the service is labeled as "short data", “medium data”, “big data”, etc.
  • Each type corresponds to a thicker packet size range; for example “Short data” means the packet size is no more than 300Bytes, “Medium data” means the packet size is between 300Bytes and 1MByte, and "Big Data” means the packet size is larger than lMByte.
  • the terminal To perform UL transmission, the terminal must first complete the random access procedure, establish an RRC layer connection procedure with the eNB, authenticate the process, establish a signaling bearer, and data bearer process, and then perform UL data transmission.
  • the access network element eNB can obtain the UL data feature information corresponding to the service initiated by the terminal according to the foregoing method.
  • both the eNB and the terminal need to determine whether the service initiated by the terminal belongs to the foregoing "data feature predictable" service, and if so, the following two UL scheduling methods are available: 1) The terminal does not need to report the scheduling request and the buffer status report (Buffer Status Report,
  • the BSR which includes the UL data volume size information to be transmitted by the terminal, but waits for the UL resource scheduling signaling of the access network element; the eNB does not wait for the terminal to report the scheduling request and the BSR, and directly initiates according to the previously obtained terminal.
  • the UL data feature information corresponding to the service is used to perform UL resource scheduling on the terminal; (2) the terminal needs to report the scheduling request, but does not need to report the BSR, and the terminal waits for the UL resource scheduling signaling of the access network element after reporting the scheduling request; Waiting for the terminal to report the scheduling request, after receiving the scheduling request, the terminal does not need to wait for the BSR, and directly performs UL resource scheduling on the terminal according to the UL data feature information corresponding to the service initiated by the terminal.
  • the access network element needs to wait for the scheduling request reported by the terminal to re-transmit the UL resource scheduling signaling, and the scheduling delay is larger, and the scheduling request is larger than if the eNB does not need to wait for the scheduling request reported by the terminal to directly send the UL resource scheduling signaling. Bring more signaling overhead, but both methods have their own advantages.
  • the UL resource scheduling is, for example: if the data packet to be sent by the terminal is large, there is not enough resources in one subframe to carry the data. For all data of the packet, the eNB may continuously allocate UL resources of several subframes for the terminal.
  • the eNB may configure semi-persistent scheduling for the terminal (that is, assign a periodic, fixed-frequency UL resource to the terminal, the periodicity of the terminal.
  • the packet upload period of the terminal matches).
  • the above scheduling example belongs to the eNB implementation problem, and only provides an auxiliary role for the eNB scheduling in the present invention, and is not intended to limit the present invention.
  • 7 is a flow chart of an example of radio resource scheduling. Taking "Mobile Original" as an example, as shown in FIG.
  • Step S710 The terminal has UL data to arrive, and needs to perform UL transmission;
  • Step S720 the terminal completes the random access, establishes an RRC layer connection with the eNodeB, and establishes a signaling bearer and a data bearer.
  • the MME performs the corresponding service according to the identity of the terminal and the service type to be initiated by the terminal.
  • the UL data feature information is sent to the serving eNodeB where the terminal is located.
  • step S730 the eNodeB performs UL resource scheduling according to the UL data feature information.
  • step S740 the terminal uploads the to-be-transmitted data.
  • step S730 after the terminal completes the process of accessing and authenticating on the network side, the eNB can actively perform UL resource scheduling for the terminal (without waiting for the terminal to send a scheduling request and a BSR).
  • another implementation method is: After receiving the scheduling request sent by the terminal, the eNB performs UL scheduling on the terminal. Since the eNB knows the amount of data to be transmitted by the terminal, the first UL scheduling of the eNB can schedule the terminal according to the maximum assignable UL resource, thereby significantly improving the throughput of the terminal and reducing the packet transmission delay.
  • the above eNB does not wait for the terminal to report the scheduling request and the BSR to implement the present invention, there may be another case: when the terminal receives the "Mobile Terminating" (called), and the eNB allocates the terminal for the terminal.
  • the terminal After the UL resource, if the terminal does not have UL data to be transmitted at this time, it will cause the eNB to be scheduled.
  • the UL resource location does not receive any UL data.
  • the eNB may stop actively allocating UL resources for the terminal, wait for the terminal to send a scheduling request according to the prior art process, and wait for the subsequent BSR. If the eNB needs to wait for the scheduling request reported by the terminal and then send the UL resource scheduling signaling, the eNB performs the UL scheduling after waiting for the scheduling request sent by the terminal, and reduces the possible redundant UL scheduling signaling.
  • Step S810 with Mobile Terminating, the MME sends a paging message to the terminal
  • step S820 after the terminal receives the paging, completes the random access, establishes an RRC layer connection with the eNodeB, and authenticates.
  • the MME sends the UL data feature information of the corresponding service to the serving eNodeB where the terminal is located according to the identity of the terminal and the service type to be initiated by the terminal;
  • the eNodeB sends the downlink data to the terminal.
  • step S840 the eNodeB determines, according to the service feature, that if the UL data reported by the terminal needs to be received, the UL resource scheduling is performed according to the UL data feature information; if the UL data reported by the terminal is not required to be received, Performing UL resource scheduling; step S850, the eNodeB sends a UL resource scheduling message; Step S860, the terminal does not send data at the scheduled resource location; Step S870, the eNodeB stops UL scheduling and waits for a scheduling request.
  • step S830 after the eNB sends the downlink terminal (Mobile Terminating) data, the eNB determines, according to the feature information of the service initiated by the terminal, whether the terminal has UL data to be transmitted at a subsequent time, if yes, the eNB may Proactively perform UL resource scheduling for the terminal (without waiting for the terminal to report the scheduling request and the BSR, or just waiting for the scheduling request).
  • the eNB determines that the terminal has UL data to be transmitted at a subsequent time, and then performs step S850, that is, the eNB performs UL scheduling on the terminal.
  • step S860 The dotted line shown in step S860 indicates that the terminal does not transmit UL data at the resource location indicated by the UL scheduling.
  • the reason for this may be various, such as: UL data arrival delay, or the terminal does not normally obtain UL data.
  • the eNB may perform subsequent UL scheduling according to the prior art process (ie, waiting for a scheduling request and a BSR). The above example is used to explain how the eNB performs UL scheduling on the terminal by using the data feature information corresponding to the terminal.
  • Embodiment 2 An Access Network Element As shown in FIG.
  • the access network element 90 of the present embodiment mainly includes an obtaining module 910 and a sending module 920, where: the obtaining module 910 is configured to: obtain a service supported by the terminal. The corresponding uplink (UL) data feature information; the sending module 920 is connected to the acquiring module 910, and the sending module 920 is configured to: when the service initiated by the terminal has regularity or predictability, according to the terminal.
  • the UL data feature information corresponding to the initiated service sends UL resource scheduling signaling to the terminal, and performs UL resource scheduling on the terminal.
  • the obtaining module 910 is configured to obtain UL data feature information corresponding to the service supported by the terminal from the core network element, the machine type communication (MTC) server, or the terminal.
  • MTC machine type communication
  • the obtaining module 910 is configured to: a random access procedure of the terminal, an RRC layer connection establishment process of the access network element and the terminal, an RRC layer connection reconfiguration process with the access network element, or the connection
  • the RRC layer connection re-establishment process of the network element of the network obtains the UL data feature information corresponding to the service supported by the terminal.
  • Embodiment 3 A terminal As shown in FIG. 10, the terminal 900 of this embodiment mainly includes a sending module 960, a service initiating module 970, and a receiving module 980, where: the sending module 960 is configured to: correspond to a service supported by itself.
  • the uplink (UL) data feature information is sent to the access network element;
  • the service initiation module 970 is configured to: initiate a service;
  • the receiving module 980 is connected to the sending module 960, and the receiving module 980 is configured to: receive UL resource scheduling signaling sent by the access network element; wherein, the access network element is set to The UL resource scheduling signaling is sent according to the UL data feature information corresponding to the service initiated by the service initiating module 970.
  • the sending module 960 is configured to perform a random access procedure in the terminal, an RRC layer connection establishment process with the access network element, and an RRC layer connection reconfiguration process or the connection network element of the access network element.
  • the RRC layer connection re-establishment process of the access network element is performed, and the UL data feature information corresponding to the service supported by the self is sent to the access network element.
  • a general-purpose computing device which can be centralized on a single computing device or distributed over a network of multiple computing devices.
  • they may be implemented by program code executable by the computing device, such that they may be stored in the storage device by the computing device, or they may be fabricated into individual integrated circuit modules, or many of them Modules or steps are made into a single integrated circuit module.
  • the invention is not limited to any specific combination of hardware and software.
  • the resource scheduling technology proposed by the technical solution of the present invention can make the UL resource scheduling more controllable by changing the existing scheduling process for the service with regular or predictable UL data volume. Signaling, and reducing scheduling delays, improves wireless spectrum efficiency and system throughput, and enhances user experience.

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Abstract

本发明公开了一种无线资源调度方法,所述方法包括:接入网网元获得终端支持的业务所对应的上行链路(UL)数据特征信息;所述终端判断出所发起的业务具有规律性或可预知性时,等待所述接入网网元的UL资源调度信令;以及所述接入网网元在所述终端所发起的业务具有规律性或可预知性时,根据所述终端所发起的业务所对应的UL数据特征信息,向所述终端发送所述UL资源调度信令,对所述终端进行UL资源调度。本发明还公开了一种接入网网元和一种终端。本发明使得UL资源调度可以更加节省控制信令,提高了无线频谱效率和系统吞吐量。

Description

一种无线资源调度方法、 接入网网元及终端
技术领域 本发明涉及无线通信技术领域, 特别涉及宽带无线通讯系统的无线资源 调度方法、 接入网网元及终端。
背景技术 现有的宽带无线通讯系统的上行链路无线资源调度, 通常遵循下述的方 法: ( 1 ) 首先终端根据自身的业务数据量向基站发送调度请求或者带宽请 求。
( 2 )基站根据终端的申请, 结合信道状况和业务负载情况, 决定是否为 终端分配上行链路无线资源。
( 3 )如果基站决定为终端分配无线资源,则向终端发送上行链路资源分 配信令以通知终端使用哪个上行链路资源发送数据。 上述方法可以比较好地支持现有移动终端的业务, 例如 IP语音(Voice over Internet Protocol, VoIP )业务、 网络游戏业务、 无线视频业务和文件传 输协议 ( File Transfer Protocol, FTP ) 业务等。 上述业务主要应用于人到人(Human to Human, H2H ) 的通讯, 随着物 联网概念的发展, 机器到机器 (Machine to Machine, M2M ) 的通讯(在第 三代合作伙伴计划(3rd Generation Partnership Project, 3GPP )中称之为机器 类型通讯(Machine Type Communication, MTC ) )将逐步引入整个社会。
M2M狭义上的定义是机器到机器的通信, 广义上的定义是以机器终端智能 交互为核心的、 网络化的应用与服务。 它^ ^于智能机器终端, 以多种通信 方式为接入手段, 为客户提供的信息化解决方案, 用于满足客户对监控、 指 挥调度、 数据釆集和测量等方面的信息化需求。
M2M 的应用中, 业务类型非常广泛, 例如家庭抄表、 工业生产仪表自 动化、 水质监控、 智能交通以及资产追踪等等, 这些业务类型中, 有的业务 的上行链路(UpLink, UL )数据传输的大小是固定的一种或者几种, 例如工 业生产中的一些仪器仪表、便携的健康监护仪、以及资产追踪领域的设备等; 有的业务的上行链路数据传输的大小是波动而不固定的, 例如消费类电子设 备和智能交通系统等。 但对于网络侧来说, 其调度流程并不区分业务的上行 数据大小是否是固定的, 现有长期演进(Long Term Evolution, LTE )技术 中, 当处于连接态的终端有 UL数据需要传输时, 需要执行下述步骤(参考 图 1 ) : 当终端有 UL数据待传输时(步骤 S110 ) ,终端发送调度请求 Scheduling Request , SR )给接入网网元(在 LTE中,接入网网元是演进型基站( eNodeB , eNB ) ) (步骤 S120 );接入网网元对终端进行首次 UL资源调度(步骤 S130 ), 首次分配的 UL资源通常较小,以避免可能发生的过多分配资源导致的浪费; 终端在接入网网元分配的 UL 资源上发送緩冲区状态报告 (Buffer Status Report, BSR )给接入网网元, 报告待上传的数据量大小 (步骤 S140 ) ; 接 入网网元根据 BSR对终端进行后续 UL资源调度(步骤 S150 ) 。 本发明申请发明人发现:
对于每次传输的 UL数据量不固定的这类 M2M业务,由于 UL数据量的 不可预知性, 因此终端向基站发送 SR和 BSR是有必要的; 但对于每次传输的 UL数据量固定或者有规律性的这类 M2M业务, 由 于 UL数据量的可预知性, 因此终端向基站发送 SR和 BSR就显得冗余。 此 夕卜,接入网网元在收到 SR后进行的首次 UL资源调度, 由于对待传 UL数据 量的未知, 接入网网元通常会分配较少的 UL资源给终端, 以免造成浪费, 这就进一步导致了终端的数据包传输延迟, 终端的数据吞吐量的下降。 尤其 是 M2M得到广泛运用, M2M设备大量使用时, 所述的这种冗余就构成了不 可忽视的额外信令开销,对系统吞吐量会造成影响,此外也会带来额外的 UL 调度延迟; 所述的终端的数据包传输延迟也会导致终端的感受满意度下降。
发明内容 本发明所要解决的技术问题是需要提供无线资源调度技术, 克服现有的
UL无线资源调度技术并不适用于待传 UL数据量具规律性或可预知的业务 的技术缺陷。 为了解决上述技术问题, 本发明提供了一种无线资源调度方法, 所述方 法包括: 接入网网元获得终端支持的业务所对应的上行链路( UL )数据特征信息; 所述终端判断出所发起的业务具有规律性或可预知性时, 等待所述接入 网网元的 UL资源调度信令; 以及 所述接入网网元在所述终端所发起的业务具有规律性或可预知性时, 根 据所述终端所发起的业务所对应的 UL数据特征信息, 向所述终端发送所述 UL资源调度信令, 对所述终端进行 UL资源调度。 上述方法中, 所述终端支持的业务所对应的 UL数据特征信息包括所述 终端支持的业务的数据模型特征或者所述终端支持的业务的数据包大小信 息。 上述方法中, 所述数据模型特征包括下述信息中的一种或一种以上: 数据包大小范围是否固定、 数据包大小范围固定的数据包种类数量、 数 据包是否仅单次发送、 数据包发送是否具有周期性、 某种数据包发送具有周 期性则该种数据包的发送周期、 多种大小范围固定的数据包之间的发送顺序 是否符合固定规律以及该发送顺序所符合的该固定规律。 上述方法中, 所述终端支持的业务的数据包大小信息包括下述信息中的 一种或一种以上: 数据包大小的实际值或者实际值范围、 数据包大小范围所处的级别以及 按数据包大小范围所划分的数据包大小类型。 上述方法中, 所述接入网网元获得所述终端支持的业务所对应的 UL数 据特征信息的步骤包括: 所述接入网网元从核心网网元、 机器类型通讯(MTC )服务器或者所述 终端获得所述终端支持的业务所对应的 UL数据特征信息。 上述方法中, 所述接入网网元从所述核心网网元获得所述终端支持的业 务所对应的 UL数据特征信息时, 所述终端支持的业务所对应的 UL数据特 征信息保存在所述核心网网元, 所述终端对应的注册信息中包含所述终端支 持的业务所对应的 UL数据特征信息; 所述接入网网元从所述 MTC服务器获得所述终端支持的业务所对应的 UL数据特征信息时,所述 MTC服务器内保存有所述终端支持的业务所对应 的 UL数据特征信息。 上述方法中, 所述终端所发起的业务所对应的 UL数据特征信息, 由所 述核心网网元通过 S1 接口信令流程将传给所述接入网网元, 或者由所述 MTC服务器通过所述核心网网元转发给所述接入网网元。 上述方法中, 所述 S1接口信令流程包括终端上下文初始化流程中的 S1 接口信令、 终端上下文变化流程中的 S1接口信令或者新增的 S1接口信令。 上述方法中, 所述接入网网元从所述终端获得所述终端支持的业务所对 应的 UL数据特征信息的步骤包括: 所述终端在和网络侧建立连接的过程中 上报所述 UL数据特征信息。 上述方法中, 所述终端和所述网络侧建立连接的过程包括: 终端的随机接入过程、 与所述接入网网元的无线资源控制 (RRC )层连 接建立过程、与所述接入网网元的 RRC层连接重配置过程或者与所述接入网 网元的 RRC层连接重建过程。 上述方法中, 所述终端在和网络侧建立连接的过程中上报所述 UL数据 特征信息的步骤包括: 所述终端在所述随机接入过程的消息 3中上报自身支持的业务所对应的 UL数据特征信息; 或者 所述终端在所述 RRC层连接建立过程的连接请求消息或者连接建立完 成消息中上报自身支持的业务所对应的 UL数据特征信息; 或者 所述终端在所述 RRC层连接重配置过程的连接重配置完成消息中上报 自身支持的业务所对应的 UL数据特征信息; 或者 所述终端在所述 RRC层连接重建过程的连接重建请求消息或者连接重 建完成消息中上报自身支持的业务所对应的 UL数据特征信息。 该方法还包括: 所述终端向所述接入网网元发送调度请求; 以及 所述接入网网元收到所述调度请求后根据所述终端所发起的业务所对应 的 UL数据特征信息, 向所述终端发送所述 UL资源调度信令。 该方法还包括: 所述接入网网元在 UL调度位置没有收到所述终端上报的数据, 则停止 调度, 等待所述终端上报调度请求以及 UL数据量大小信息报告。 为了解决上述技术问题, 本发明还提供了一种接入网网元, 所述接入网 网元包括获取模块及发送模块, 其中: 所述获取模块设置为: 获得终端支持的业务所对应的上行链路(UL )数 据特征信息; 所述发送模块设置为: 在所述终端所发起的业务具有规律性或可预知性 时, 根据所述终端所发起的业务所对应的 UL数据特征信息, 向所述终端发 送所述 UL资源调度信令, 对所述终端进行 UL资源调度。 上述接入网网元中, 所述获取模块是设置为按如下方式获得终端支持的 业务所对应的 UL数据特征信息: 从核心网网元、 机器类型通讯(MTC )服 务器或者所述终端获得所述终端支持的业务所对应的 UL数据特征信息。 上述接入网网元中, 所述获取模块是设置为按如下方式获得终端支持的 业务所对应的 UL数据特征信息: 在所述终端的随机接入过程、 所述接入网 网元与所述终端的 RRC层连接建立过程、 与所述接入网网元的 RRC层连接 重配置过程或者与所述接入网网元的 RRC层连接重建过程获得所述终端支 持的业务所对应的 UL数据特征信息。 为了解决上述技术问题, 本发明还提供了一种终端, 所述终端包括发送 模块、 业务发起模块以及接收模块, 其中: 所述发送模块设置为: 将自身所支持的业务所对应的上行链路(UL )数 据特征信息发送给接入网网元; 所述业务发起模块设置为: 发起业务; 以及 所述接收模块设置为: 接收所述接入网网元发送的 UL资源调度信令; 其中, 所述接入网网元用于根据所述业务发起模块所发起的业务所对应 的 UL数据特征信息发送所述 UL资源调度信令。 上述终端中, 所述发送模块是设置为按如下方式将自身所支持的业务所 对应的 UL数据特征信息发送给接入网网元: 在所述终端的随机接入过程、 与所述接入网网元的 RRC层连接建立过程、 与所述接入网网元的 RRC层连 接重配置过程或者与所述接入网网元的 RRC层连接重建过程,将所述自身所 支持的业务所对应的 UL数据特征信息发送给所述接入网网元。
与现有技术相比, 本发明技术方案提出的资源调度技术, 针对 UL数据 量具有规律性或可预知性的业务, 通过改变现有的调度流程, 使得 UL资源 调度可以更加节省控制信令, 并且减少调度延迟, 提高了无线频谱效率和系 统吞吐量, 增强了用户体验度。
附图概述 附图用来提供对本发明的进一步理解, 并且构成说明书的一部分, 与本 发明的实施例一起用于解释本发明, 并不构成对本发明的限制。 在附图中: 图 1为现有 LTE技术中 eNodeB为终端进行 UL资源调度的流程图; 图 2为本发明实施例提供的无线资源调度方法的流程图; 图 3为本发明所述的终端的随机接入的流程图; 图 4为本发明所述的终端的 RRC连接建立的流程图; 图 5为本发明所述的终端的 RRC连接重配置的流程图; 图 6为本发明所述的终端的 RRC连接重建的流程图; 图 7为本发明实施例所述的 Mobile Original场景流程图; 图 8为本发明实施例所述的 Mobile Terminating场景流程图; 图 9为本发明实施例二所述的接入网网元的组成示意图; 图 10为本发明实施例三所述的终端的组成示意图。
本发明的较佳实施方式 为使本发明的目的、 技术方案和优点更加清楚明白, 下文中将结合附图 对本发明的实施例进行详细说明, 借此对本发明如何应用技术手段来解决技 术问题, 并达成技术效果的实现过程能充分理解并据以实施。 需要说明的是, 在不冲突的情况下, 本发明实施例以及实施例中的特征 可以相互任意结合, 均在本发明的保护范围之内。 另外, 在附图的流程图示 出的步骤可以在诸如一组计算机可执行指令的计算机系统中执行, 并且, 虽 然在流程图中示出了逻辑顺序, 但是在某些情况下, 可以以不同于此处的顺 序执行所示出或描述的步骤。 实施例一、 无线资源调度方法 如图 2所示, 本实施例主要包括如下步骤: 步骤 S210,接入网网元获得终端支持的业务所对应的 UL数据特征信息; 步骤 S220, 终端完成和接入网网元的随机接入、 无线资源控制 (Radio
Resource Control, RRC )连接建立、鉴权以及信令承载和数据承载的建立后, 根据该 UL数据特征信息判断所发起的业务是否具有规律性或可预知性, 以 下也称之为 "数据特征具有可预知性" ; 步骤 S230, 若终端判断出所发起的业务具有规律性或可预知性, 则无需 向接入网网元发送待传的 UL数据量大小信息报告 (或称緩冲区状态报告 ) , 而是等待接入网网元的 UL资源调度信令; 步骤 S240,接入网网元也无需等待终端发送待传的 UL数据量大小信息, 根据事先获得的所述该终端发起的业务所对应的 UL数据特征信息, 向终端 发送 UL资源调度信令, 对终端进行 UL资源调度; 步骤 S250, 若接入网网元在 UL调度位置没有收到终端上报的数据, 那 么接入网网元停止主动调度, 按照现有技术流程, 等待终端上报调度请求, 以及 UL数据量大小信息报告。
上述 UL数据特征信息, 包括但不限于:
(一)对应业务的数据模型特征, 包括下述的一种或者多种: ( 1 )数据包大小范围是否固定;所述范围固定是指数据包大小的波动(或 者方差) 小于某个预定门限;
( 2 )数据包大小范围固定的数据包种类数量;数据包种类根据数据包大 小范围来划分, 相同范围的数据包划分为一个种类, 不同种数据包的数据包 大小范围不同; ( 3 )数据包是否仅单次发送,单次发送是指只发送一个数据包就完成本 次 UL传输;
( 4 )数据包发送是否是具有周期性的;
( 5 )若某种数据包发送是具有周期性的,则该种数据包的发送周期是多 少;
( 6 )若有多种大小范围固定的数据包,各种数据包之间的发送顺序是否 符合某个固定规律, 如果符合某固定规律则该固定规律是什么;
( 7 )其他特征;
(二)对应业务的数据包大小信息, 对于数据包大小范围不固定的业务 类型, 可不包含本项信息。 对应业务的数据包大小信息可以通过以下几种方式之一实现:
( 1 )数据包大小的实际值或者实际值范围; ( 2 )数据包大小范围所处的级别; 以级别表示的数据包大小,每一个级 别对应一个数据包大小范围;
( 3 )按数据包大小范围所划分的数据包大小类型,例如将该业务标注为 "短数据" (数据长度较短) , "非短数据" 等, 每种类型对应不同的数据 包大小范围。 上述步骤 S210, 接入网网元获得该 UL数据特征信息的方法包括但不限 于:
情形( A ): 接入网网元从核心网网元获得终端支持的业务所对应的 UL 数据特征信息; 或者 情形( B ): 接入网网元从终端获得终端支持的业务所对应的 UL数据特 征信息。 上述步骤 S210 中, 情形 (A ) 所述的接入网网元从核心网网元获得该 UL数据特征信息的实现方式包括但不限于: 步骤(A1 ) , 终端支持的业务所对应的 UL数据特征信息保存在核心网 网元或者机器类型通讯(MTC )服务器内; 以及 步骤(A2 ) , 终端发起的业务所对应的 UL数据特征信息被发送给接入 网网元, 以辅助对终端的 UL调度。 步骤( A1 )所述的 UL数据特征信息保存在核心网网元或者 MTC服务 器内, 包括但不限于: 情形 (Ala ) : 在终端对应的注册信息中包含终端所支持的业务的 UL 数据特征信息, 或者 情形(Alb ): 在 MTC服务器内存储有终端所支持的业务的 UL数据特 征信息。 步骤(A2 )所述的 UL数据特征信息被发送给接入网网元, 包括但不限 于: 情形 (A2a ) : 核心网网元通过 S1接口信令流程将所述的 UL数据特征 信息传给基站, 或者 情形 (A2b ) : MTC服务器将所述的 UL数据特征信息通过核心网网元 转发给接入网网元。 情形 (A2a )所述的核心网网元通过 SI接口信令流程将所述的 UL数据 特征信息传给基站的方式包括但不限于: 核心网网元将 UL数据特征信息插入现有的 S1接口信令中发送,例如终 端上下文初始化流程中的 S1接口信令, 或者终端上下文变化流程中的 S1接 口信令, 或者新增一个 S1接口信令。 情形( B )所述的接入网网元从终端获得该 UL数据特征信息的实现方式 包括但不限于: 情形(B1 ): 终端在和网络侧建立连接的过程中上报 UL数据特征信息, 实现方式包括但不限于: 情形(Bla ) : 终端在随机接入过程中上报 UL数据特征信息, 比如终端 在随机接入过程中的消息 3 ( msg3 )上报 UL数据特征信息; 情形 (Bib ) : 终端在 RRC连接建立过程中上报 UL数据特征信息, 比 如终端在 RRC连接请求消息中上报 UL数据特征信息, 或者终端在 RRC连 接建立完成消息中上报 UL数据特征信息; 情形 (Blc ) : 终端在 RRC连接重配置过程中上报 UL数据特征信息, 比如终端在 RRC连接重配置完成消息中上报 UL数据特征信息; 情形 (Bid ) : 终端在 RRC连接重建过程中上报 UL数据特征信息, 比 如终端在 RRC连接重建请求消息中上报 UL数据特征信息,或者终端在 RRC 连接重建完成消息中上报 UL数据特征信息。 上述步骤 S220 中的 "数据特征具有可预知性" 是指, 数据包大小范围 固定, 且发送有固定规律, eNB可以根据这些特征信息提前预知终端所要发 送的下一个数据包的大小范围和发送时间; 例如: 仅单次发送的大小范围固 定的数据包业务、周期性发送的大小范围固定的数据包业务等。与之相对的, 是数据特征不具有可预知性, 指数据包大小范围不固定, 或者有多种大小范 围固定的数据包但相互间发送顺序无固定规律等等。 上述步骤 S230 中, 终端可以向接入网网元发送调度请求并等待接入网 网元发送的 UL资源调度信令;步骤 S240中接入网网元需等待终端上报的调 度请求, 并在收到调度请求后直接根据事先获得的所述该终端发起的业务所 对应的 UL数据特征信息, 向终端发送 UL资源调度信令, 对终端进行 UL 资源调度。 上述步骤 S230 中, 终端也可以不上报调度请求, 而是直接等待接入网 网元发送的 UL资源调度信令;步骤 S240中接入网网元也无需等待终端发送 调度请求以及待传的 UL数据量大小信息, 直接根据事先获得的所述该终端 发起的业务所对应的 UL数据特征信息, 向终端发送 UL资源调度信令, 对 终端进行 UL资源调度。 本实施例的一个应用实例是 LTE系统中的应用,核心网网元是移动性管 理实体(Mobility Management Element, MME ) , 接入网网元是 eNodeB (简 称 eNB ) , 终端的注册信息存储在归属用户服务器(Home Subscriber Server, HSS ) 。 eNB要对终端进行本发明所述的无线资源调度, 首先要获得终端的 UL 数据特征信息。 如上所述, 获得方式包括: 接入网网元从核心网网元获得终端支持的业务所对应的 UL数据特征信 息;或者接入网网元从终端获得终端支持的业务所对应的 UL数据特征信息。 接入网网元从核心网网元获得该 UL数据特征信息的方式包括: 在终端 的对应注册信息中包含终端所支持的业务的 UL数据特征信息 (例如保存在 HSS ) , 或者在 MTC服务器内包含终端所支持的业务的 UL数据特征信息。 终端的 UL数据特征信息被发送给接入网网元的方式包括:
( 1 )如果接入网网元要从核心网网元获得 UL数据特征信息, 那么可以 有下述方式: 核心网网元通过 S1接口信令流程将所述的 UL数据特征信息传给基站, 例如: 将 UL数据特征信息插入现有的 S1接口的终端上下文初始化流程或者终 端上下文变化流程中发送; 或者 新增一个 S1接口信令流程, 专用于发送 UL数据特征信息;
( 2 )如果接入网网元要从 MTC服务器获得 UL数据特征信息, 也需要 通过上述核心网网元的转发过程来完成。
( 3 )如果接入网网元要从终端处获得终端支持的业务所对应的 UL数据 特征信息,则可以在终端和网络侧建立连接的过程中上报 UL数据特征信息; 在终端和网络侧建立连接的过程中上报 UL数据特征信息的方式包括: 终端在随机接入过程中上报 UL数据特征信息; 例如在消息 3 ( msg3 ) 上报 UL数据特征信息(参考图 3 , msg3即图中所示,在随机接入过程中 eNB 给 UE进行的首次调度, 用于指示 msg4的发送资源) ; 或者 终端在 RRC连接建立过程中上报 UL数据特征信息, 例如在 RRC连接 请求消息中上报 UL数据特征信息, 或者在 RRC连接建立完成消息中上报 UL数据特征信息 (参考图 4 ) ; 或者 终端在 RRC连接重配置过程中上报 UL数据特征信息; 例如在 RRC连 接重配置完成消息中上报 UL数据特征信息 (参考图 5 ) ; 或者 终端在 RRC连接重建过程中上报 UL数据特征信息; 例如在 RRC连接 重建请求消息中上报 UL数据特征信息,或者在 RRC连接重建完成消息中上 报 UL数据特征信息 (参考图 6 ) 。 图 3所示的终端的随机接入的流程、图 4所示的终端的 RRC连接建立的 流程、图 5所示的终端的 RRC连接重配置的流程以及图 6所示的终端的 RRC 连接重建的流程, 请结合现有技术理解, 此处不做赞述。 上述的 UL数据特征信息包括: 终端所支持的各种业务的 UL数据具有何种数据模型特征, 以及对应业 务的数据包大小信息 (对于数据包大小范围不固定的业务类型, 可不包含本 项信息) 。 上述终端所支持的各种业务的 UL数据具有何种数据模型特征, 例如: ( 1 )数据包大小范围是否固定;所述范围固定是指数据包大小的波动(或 者方差) 小于某个预定门限;
( 2 )数据包大小范围固定的数据包种类数量;数据包种类根据数据包大 小范围来划分, 相同范围的数据包划分为一个种类, 不同种数据包的数据包 大小范围不同;
( 3 )数据包是否仅单次发送;
( 4 )数据包发送是否是具有周期性的;
( 5 )若某种数据包发送是具有周期性的,则该种数据包的发送周期是多 少;
( 6 )若有多种大小范围固定的数据包,各种数据包之间的发送顺序是否 符合某个固定规律, 如果符合某固定规律则该固定规律是什么;
( 7 )其他特征; 对于那些数据特征具有规律性或可预知性的业务(指数据包大小范围固 定, 且发送有固定规律的类型; eNB可以根据这些特征信息提前预知终端所 要发送的下一个数据包的大小范围和发送时间; 例如: 仅单次发送的大小范 围固定的数据包业务、 周期性发送的大小范围固定的数据包业务等; 与之相 对的, 是不具有规律性或可预知性的业务, 指数据包大小范围不固定, 或者 有多种大小范围固定的数据包但相互间发送顺序无固定规律) , eNB可以根 据其数据特征信息来进行 UL资源调度。 以上所述的数据模型特征仅为举例, 还可以有其他更多的种类和分类方 法, 分类方法并不影响本发明的实质。
上述对应业务的数据包大小信息可以通过以下几种方式之一实现:
( 1 )数据包大小的实际值或者实际值范围, 例如以字节(Byte )为单位 或者以比特(Bit )为单位的具体数值; 或者 ( 2 )以级别表示的数据包大小, 例如将数据包大小分成若干级别, 每一 级别代表不同的数据包大小的范围; 或者 ( 3 )按数据包大小范围进行大致的类型区分, 例如将该业务标注为 "短 数据" , "中等数据" , "大数据" 等, 每种类型对应一个较粗的数据包大 小范围; 例如 "短数据" 代表数据包大小不大于 300Bytes, "中等数据" 代 表数据包大小介于 300Bytes到 1MByte之间, "大数据" 代表数据包大小大 于 lMByte。 以上仅为举例, 并不用于限定本发明。 上述方法仅为表述数据包大小信息的部分例子, 还可以有其他方法, 只 要能够代表数据包大小即可, 对后续的发明内容不形成影响。 终端要进行 UL传输,就必须首先完成随机接入过程、和 eNB建立 RRC 层连接过程、 鉴权过程、 建立信令承载和数据承载过程, 然后才可进行 UL 数据传输。在这些过程中的任意一个过程,接入网网元 eNB可以根据前述的 方法获得该终端发起的业务所对应的 UL数据特征信息。 终端和网络侧完成上述的这些过程后, eNB和终端均需判断终端所发起 的业务是否属于前述的 "数据特征具有可预知性" 的业务, 若是, 则可以选 用以下 2种 UL调度方法: ( 1 )终端无需上报调度请求以及緩冲区状态报告 ( Buffer Status Report,
BSR, 其中包含终端待传的 UL数据量大小信息) , 而是等待接入网网元的 UL资源调度信令; eNB不用等待终端上报调度请求以及 BSR, 直接根据事 先获得的所述该终端发起的业务所对应的 UL数据特征信息,对终端进行 UL 资源调度; ( 2 )终端需上报调度请求, 但无需上报 BSR, 终端上报调度请求后等 待接入网网元的 UL资源调度信令; eNB需等待终端上报调度请求, 收到调 度请求后无需等待 BSR, 直接根据事先获得的所述该终端发起的业务所对应 的 UL数据特征信息, 对终端进行 UL资源调度。 接入网网元需要等待终端上报的调度请求再发送 UL资源调度信令, 与 eNB不需等待终端上报的调度请求而直接发送 UL资源调度信令相比, 调度 延迟更大, 并且调度请求会带来更多的信令开销, 但两种方法各有优势。 所述的 UL资源调度例如: 如果终端要发送的数据包较大, 在一个子帧内没有足够资源承载该数据 包的所有数据, eNB可以为终端连续分配若干个子帧的 UL资源。 如果终端建立的业务属于周期性单种数据包业务,那么 eNB可以为终端 配置半持久调度( Semi-Persistent Scheduling, 即为终端分配一个周期性的、 频域资源位置固定的 UL资源, 其周期和终端的数据包上传周期相匹配) 。 以上调度的例子属于 eNB实现问题, 仅为举例说明本发明对 eNB调度 的辅助作用, 并不用于限定本发明。 图 7是一个无线资源调度例子的流程图, 以 "Mobile Original" (主叫) 为例, 如图 7所示, 主要包括如下步骤: 步骤 S710, 终端有 UL数据要到达, 需要进行 UL发送; 步骤 S720, 终端完成随机接入、 和 eNodeB建立 RRC层连接、 鉴权过 程以及建立信令承载和数据承载; 在这些过程中, MME根据终端的身份以 及终端要发起的业务类型, 将对应业务的 UL数据特征信息发送给终端所在 的服务 eNodeB; 步骤 S730, eNodeB根据 UL数据特征信息进行 UL资源调度; 步骤 S740, 终端上传待传数据。 在步骤 S730, 当终端完成和网络侧的接入、 鉴权等过程后, eNB即可主 动为终端进行 UL资源调度(不需等待终端发送调度请求和 BSR ) 。 当然, 依照上述例子, 另一种实现方法是: eNB在收到终端发送的调度 请求后, 再对终端进行 UL调度。 由于 eNB已知终端待传的数据量大小,则 eNB的首次 UL调度即可以按 照最大可分配的 UL资源对终端进行调度,从而可以显著提升终端的吞吐量, 减低数据包传输延时。 当釆用上述的 eNB不用等待终端上报调度请求以及 BSR来实现本发明 的时候, 可能存在另一种情况: 当终端收到的是 " Mobile Terminating" (被叫), 且 eNB为终端分配了
UL资源后, 如果此时终端没有待传的 UL数据, 那么会导致 eNB在预定的 UL资源位置收不到任何 UL数据。在这种情况下, eNB可停止为终端主动的 分配 UL 资源, 等待终端按照现有技术流程发送调度请求, 并等待后续的 BSR。 如果 eNB需要等待终端上报的调度请求然后再发送 UL资源调度信令, 那么 eNB会在等到终端发送的调度请求后才进行 UL调度, 减少了可能的冗 余 UL调度信令。 图 8即是接入网网元直接对终端进行 UL资源调度(即终端无需上报调 度请求) 时的无线资源调度流程图。 如图 8所示, 其主要包括如下步骤: 步骤 S810, 有 Mobile Terminating, MME向终端发寻呼消息 步骤 S820, 终端收到寻呼后, 完成随机接入、 和 eNodeB建立 RRC层 连接、 鉴权、 建立信令承载和数据承载过程; 在上述的这些过程中的任意一 个过程, MME根据终端的身份以及终端要发起的业务类型, 将对应业务的 UL数据特征信息发送给终端所在的服务 eNodeB; 步骤 S830, eNodeB向终端发送下行数据; 步骤 S840, eNodeB根据业务特征判断, 如果需要接收终端上报的 UL 数据, 则根据 UL数据特征信息进行 UL资源调度; 如果不需要接收终端上 报的 UL数据, 不进行 UL资源调度; 步骤 S850, eNodeB发送 UL资源调度消息; 步骤 S860, 终端在被调度的资源位置上没有发送数据; 步骤 S870, eNodeB停止 UL调度, 等待调度请求。 上述步骤 S830中, 在 eNB发送了下行 MT ( Mobile Terminating )数据 后, 步骤 S840中 eNB根据该终端所发起的业务的特征信息判断终端是否会 在后续时间有 UL数据待传输, 如果有则 eNB可主动为终端进行 UL资源调 度(不用等待终端上报调度请求以及 BSR, 或者只等待调度请求) 。 在本例中, 假设 eNB判断终端在后续时间有 UL数据待传输, 则执行步 骤 S850 , 即 eNB对终端进行 UL调度。 步骤 S860所示的虚线表示终端在 UL调度所指示的资源位置没有发送 UL数据, 导致这种情况的原因可以是很多种, 例如: UL数据到达延迟, 或 者终端没有正常的获得 UL数据等。 步骤 S870中, eNB即可按照现有技术流程 (即等待调度请求和 BSR ) 进行后续的 UL调度。 上述例子用于说明 eNB 如何利用终端对应的数据特征信息对终端进行 UL调度。 实施例二、 一种接入网网元 如图 9所示,本实施例的接入网网元 90主要包括获取模块 910及发送模 块 920, 其中: 获取模块 910设置为: 获得终端支持的业务所对应的上行链路(UL )数 据特征信息; 发送模块 920, 与该获取模块 910相连, 发送模块 920设置为: 在所述 终端所发起的业务具有规律性或可预知性时, 根据终端所发起的业务所对应 的 UL数据特征信息,向终端发送 UL资源调度信令,对终端进行 UL资源调 度。 本实施例中,获取模块 910设置为:从核心网网元、机器类型通讯(MTC ) 服务器或者终端获得终端支持的业务所对应的 UL数据特征信息。 其中, 获取模块 910设置为: 在终端的随机接入过程、 接入网网元与终 端的 RRC层连接建立过程、 与所述接入网网元的 RRC层连接重配置过程或 者与所述接入网网元的 RRC层连接重建过程获得终端支持的业务所对应的 UL数据特征信息。 实施例三、 一种终端 如图 10所示, 本实施例的终端 900主要包括发送模块 960、 业务发起模 块 970以及接收模块 980 , 其中: 发送模块 960设置为: 将自身所支持的业务所对应的上行链路(UL )数 据特征信息发送给接入网网元; 业务发起模块 970设置为: 发起业务; 接收模块 980, 与发送模块 960相连, 接收模块 980设置为: 接收接入 网网元发送的 UL资源调度信令; 其中, 接入网网元是设置为根据业务发起模块 970所发起的业务所对应 的 UL数据特征信息发送 UL资源调度信令。 本实施例中, 发送模块 960是设置为在终端的随机接入过程、 与接入网 网元的 RRC层连接建立过程、 与所述接入网网元的 RRC层连接重配置过程 或者与所述接入网网元的 RRC层连接重建过程,将所述自身所支持的业务所 对应的 UL数据特征信息发送给所述接入网网元。 本领域的技术人员应该明白, 上述的本发明的各模块或各步骤可以用通 用的计算装置来实现, 它们可以集中在单个的计算装置上, 或者分布在多个 计算装置所组成的网络上, 可选地, 它们可以用计算装置可执行的程序代码 来实现, 从而, 可以将它们存储在存储装置中由计算装置来执行, 或者将它 们分别制作成各个集成电路模块, 或者将它们中的多个模块或步骤制作成单 个集成电路模块来实现。这样,本发明不限制于任何特定的硬件和软件结合。
以上所述仅为本发明的优选实施例而已, 并非用于限定本发明的保护范 围。 根据本发明的发明内容, 还可有其他多种实施例, 在不背离本发明精神 改变和变形, 凡在本发明的精神和原则之内, 所作的任何修改、 等同替换、 改进等, 均应包含在本发明的保护范围之内。
工业实用性 与现有技术相比, 本发明技术方案提出的资源调度技术, 针对 UL数据 量具有规律性或可预知性的业务, 通过改变现有的调度流程, 使得 UL资源 调度可以更加节省控制信令, 并且减少调度延迟, 提高了无线频谱效率和系 统吞吐量, 增强了用户体验度。

Claims

权 利 要 求 书
1、 一种无线资源调度方法, 所述方法包括: 接入网网元获得终端支持的业务所对应的上行链路( UL )数据特征信息; 所述终端判断出所发起的业务具有规律性或可预知性时, 等待所述接入 网网元的 UL资源调度信令; 以及 所述接入网网元在所述终端所发起的业务具有规律性或可预知性时, 根 据所述终端所发起的业务所对应的 UL数据特征信息, 向所述终端发送所述 UL资源调度信令, 对所述终端进行 UL资源调度。
2、 根据权利要求 1 所述的方法, 其中, 所述终端支持的业务所对应的 UL数据特征信息包括所述终端支持的业务的数据模型特征或者所述终端支 持的业务的数据包大小信息。
3、 根据权利要求 2所述的方法, 其中: 所述数据模型特征包括下述信息中的一种或一种以上: 数据包大小范围是否固定、 数据包大小范围固定的数据包种类数量、 数 据包是否仅单次发送、 数据包发送是否具有周期性、 某种数据包发送具有周 期性则该种数据包的发送周期、 多种大小范围固定的数据包之间的发送顺序 是否符合固定规律以及该发送顺序所符合的该固定规律。
4、 根据权利要求 2所述的方法, 其中: 所述终端支持的业务的数据包大小信息包括下述信息中的一种或一种以 上: 数据包大小的实际值或者实际值范围、 数据包大小范围所处的级别以及 按数据包大小范围所划分的数据包大小类型。
5、根据权利要求 1所述的方法, 其中, 所述接入网网元获得所述终端支 持的业务所对应的 UL数据特征信息的步骤包括: 所述接入网网元从核心网网元、 机器类型通讯(MTC )服务器或者所述 终端获得所述终端支持的业务所对应的 UL数据特征信息。
6、 根据权利要求 5所述的方法, 其中: 所述接入网网元从所述核心网网元获得所述终端支持的业务所对应的
UL数据特征信息时,所述终端支持的业务所对应的 UL数据特征信息保存在 所述核心网网元, 所述终端对应的注册信息中包含所述终端支持的业务所对 应的 UL数据特征信息; 所述接入网网元从所述 MTC服务器获得所述终端支持的业务所对应的 UL数据特征信息时,所述 MTC服务器内保存有所述终端支持的业务所对应 的 UL数据特征信息。
7、根据权利要求 5所述的方法, 其中, 所述终端所发起的业务所对应的 UL数据特征信息, 由所述核心网网元通过 S1接口信令流程将传给所述接入 网网元, 或者由所述 MTC服务器通过所述核心网网元转发给所述接入网网 元。
8、 根据权利要求 7所述的方法, 其中, 所述 S1接口信令流程包括终端 上下文初始化流程中的 S1接口信令、 终端上下文变化流程中的 S1接口信令 或者新增的 S1接口信令。
9、根据权利要求 5所述的方法, 其中, 所述接入网网元从所述终端获得 所述终端支持的业务所对应的 UL数据特征信息的步骤包括: 所述终端在和 网络侧建立连接的过程中上报所述 UL数据特征信息。
10、 根据权利要求 9所述的方法, 其中, 所述终端和所述网络侧建立连 接的过程包括: 终端的随机接入过程、 与所述接入网网元的无线资源控制 (RRC )层连 接建立过程、与所述接入网网元的 RRC层连接重配置过程或者与所述接入网 网元的 RRC层连接重建过程。
11、根据权利要求 10所述的方法, 其中, 所述终端在和网络侧建立连接 的过程中上报所述 UL数据特征信息的步骤包括: 所述终端在所述随机接入过程的消息 3中上报自身支持的业务所对应的 UL数据特征信息; 或者 所述终端在所述 RRC层连接建立过程的连接请求消息或者连接建立完 成消息中上报自身支持的业务所对应的 UL数据特征信息; 或者 所述终端在所述 RRC层连接重配置过程的连接重配置完成消息中上报 自身支持的业务所对应的 UL数据特征信息; 或者 所述终端在所述 RRC层连接重建过程的连接重建请求消息或者连接重 建完成消息中上报自身支持的业务所对应的 UL数据特征信息。
12、 根据权利要求 1所述的方法, 该方法还包括: 所述终端向所述接入网网元发送调度请求; 以及 所述接入网网元收到所述调度请求后根据所述终端所发起的业务所对应 的 UL数据特征信息, 向所述终端发送所述 UL资源调度信令。
13、 根据权利要求 1所述的方法, 该方法还包括: 所述接入网网元在 UL调度位置没有收到所述终端上报的数据, 则停止 调度, 等待所述终端上报调度请求以及 UL数据量大小信息报告。
14、一种接入网网元, 所述接入网网元包括获取模块及发送模块, 其中: 所述获取模块设置为: 获得终端支持的业务所对应的上行链路(UL )数 据特征信息; 所述发送模块设置为: 在所述终端所发起的业务具有规律性或可预知性 时, 根据所述终端所发起的业务所对应的 UL数据特征信息, 向所述终端发 送所述 UL资源调度信令, 对所述终端进行 UL资源调度。
15、 根据权利要求 14所述的接入网网元, 其中: 所述获取模块是设置为按如下方式获得终端支持的业务所对应的 UL数 据特征信息: 从核心网网元、 机器类型通讯(MTC )服务器或者所述终端获 得所述终端支持的业务所对应的 UL数据特征信息。
16、 根据权利要求 15所述的接入网网元, 其中: 所述获取模块是设置为按如下方式获得终端支持的业务所对应的 UL数 据特征信息: 在所述终端的随机接入过程、 所述接入网网元与所述终端的 RRC层连接建立过程、 与所述接入网网元的 RRC层连接重配置过程或者与 所述接入网网元的 RRC层连接重建过程获得所述终端支持的业务所对应的 UL数据特征信息。
17、 一种终端, 所述终端包括发送模块、 业务发起模块以及接收模块, 其中:
所述发送模块设置为: 将自身所支持的业务所对应的上行链路(UL )数 据特征信息发送给接入网网元; 所述业务发起模块设置为: 发起业务; 以及 所述接收模块设置为: 接收所述接入网网元发送的 UL资源调度信令; 其中, 所述接入网网元用于根据所述业务发起模块所发起的业务所对应 的 UL数据特征信息发送所述 UL资源调度信令。
18、 根据权利要求 17所述的终端, 其中: 所述发送模块是设置为按如下方式将自身所支持的业务所对应的 UL数 据特征信息发送给接入网网元: 在所述终端的随机接入过程、 与所述接入网 网元的 RRC层连接建立过程、 与所述接入网网元的 RRC层连接重配置过程 或者与所述接入网网元的 RRC层连接重建过程,将所述自身所支持的业务所 对应的 UL数据特征信息发送给所述接入网网元。
PCT/CN2011/074488 2010-06-21 2011-05-23 一种无线资源调度方法、接入网网元及终端 WO2011160522A1 (zh)

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CN102291835A (zh) 2011-12-21
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US8787290B2 (en) 2014-07-22
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