WO2010096968A1 - 压缩模式参数的配置及测量方法、装置、系统 - Google Patents

压缩模式参数的配置及测量方法、装置、系统 Download PDF

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Publication number
WO2010096968A1
WO2010096968A1 PCT/CN2009/070581 CN2009070581W WO2010096968A1 WO 2010096968 A1 WO2010096968 A1 WO 2010096968A1 CN 2009070581 W CN2009070581 W CN 2009070581W WO 2010096968 A1 WO2010096968 A1 WO 2010096968A1
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WIPO (PCT)
Prior art keywords
carrier frequency
channel
radio
frequency
mapping relationship
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PCT/CN2009/070581
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English (en)
French (fr)
Inventor
徐廷伟
马小飞
马洁
陈君
Original Assignee
华为技术有限公司
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Application filed by 华为技术有限公司 filed Critical 华为技术有限公司
Priority to CN200980157125.2A priority Critical patent/CN102356651B/zh
Priority to PCT/CN2009/070581 priority patent/WO2010096968A1/zh
Publication of WO2010096968A1 publication Critical patent/WO2010096968A1/zh

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Classifications

    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W28/00—Network traffic management; Network resource management
    • H04W28/02—Traffic management, e.g. flow control or congestion control
    • H04W28/06—Optimizing the usage of the radio link, e.g. header compression, information sizing, discarding information

Definitions

  • the present invention relates to the field of mobile communication technologies, and in particular, to a method and apparatus, system and system for configuring and measuring compressed mode parameters. Background technique
  • the introduction of the multi-carrier frequency technology can greatly improve the peak rate of uplink and downlink data supported by the High Speed Packet Access (HSPA) technology in the Wideband Code Division Multiple Access (WCDMA) system.
  • HSPA High Speed Packet Access
  • WCDMA Wideband Code Division Multiple Access
  • the UE can simultaneously receive and transmit data of multiple data channels on the carrier frequency.
  • the radio network controller needs to configure a unified compression mode for the radio links corresponding to all carrier frequencies of the system.
  • the parameters, the user equipment (UE) and the base station (NodeB) can respectively start compression on the radio link (which has been used by the RF channel) and all the used radio channels carried by the UE.
  • the mode, the measurement of the inter-frequency or the different system wastes the RF channel resources of the UE, affects the reception and transmission of the data channel of the data channel corresponding to each radio channel of the UE, and reduces the reception of the multi-carrier system. Send performance. Summary of the invention
  • the embodiments of the present invention provide a method, a device, and a system for configuring and measuring a compressed mode parameter, which are used to save radio frequency channel resources of a UE and improve receiving and transmitting performance of a multi-carrier frequency system.
  • the embodiment of the invention provides a method for configuring a compression mode parameter, including:
  • the embodiment of the invention further provides a measurement method, including: Obtaining, according to a mapping relationship between the carrier frequency and the radio frequency channel of the terminal, a corresponding compression mode parameter configured by the at least one radio frequency channel with the carrier frequency or the carrier frequency of the radio frequency channel;
  • the compression mode is started on the radio frequency channel corresponding to the compressed mode parameter, and the measurement of the inter-frequency or different system is performed by using the compression mode parameter.
  • the embodiment of the invention further provides another measurement method, including:
  • a mapping relationship between the carrier frequency and the radio channel of the terminal is a corresponding compression mode parameter configured by the at least one radio frequency channel with the carrier frequency or the carrier frequency configured on the radio frequency channel;
  • the compressed mode is initiated on a wireless link corresponding to the compressed mode parameter, and the compressed mode parameter is used to perform measurement of the inter-frequency or different system.
  • the embodiment of the invention further provides a radio network controller, including:
  • a first acquiring module configured to acquire a mapping relationship between a carrier frequency and a radio channel of the terminal
  • a configuration module configured to configure, according to the mapping relationship between the carrier frequency and the RF channel of the terminal, a compression mode parameter corresponding to the carrier frequency of the at least one carrier frequency or the carrier frequency of the RF channel.
  • the embodiment of the invention further provides a terminal, including:
  • a second acquiring module configured to acquire, according to a mapping relationship between the carrier frequency and the radio frequency channel of the terminal, a corresponding compression mode parameter configured by the at least one radio frequency channel with the carrier frequency or the carrier frequency of the radio frequency channel;
  • the first measurement module is configured to start a compression mode on the radio frequency channel corresponding to the compressed mode parameter, and perform the measurement of the different frequency or the different system by using the compressed mode parameter.
  • the embodiment of the invention further provides a base station, including:
  • a third acquiring module configured to acquire, according to a mapping relationship between the carrier frequency and the radio frequency channel of the terminal, a corresponding compression mode parameter configured by the at least one radio frequency channel with the carrier frequency or the carrier frequency configured on the radio frequency channel;
  • a second measurement module configured to start a compression mode on the wireless link corresponding to the compressed mode parameter, and perform measurement of the different frequency or different system by using the compressed mode parameter.
  • the embodiment of the invention further provides a measurement system, including a wireless network controller, for acquiring The mapping relationship between the carrier frequency and the RF channel of the terminal, according to the mapping relationship between the carrier frequency and the RF channel of the terminal, configuring a compression mode parameter corresponding to at least one RF channel with a carrier frequency or a carrier frequency on the RF channel
  • the terminal and the base station perform measurement of the inter-frequency or different system on the at least one radio frequency channel.
  • the mapping between the carrier frequency and the radio frequency channel of the UE is obtained by the RNC, so that the RNC can establish the carrier frequency for at least one of the carrier frequency and the radio frequency channel of the UE.
  • the radio frequency channel or the carrier frequency configuration on the radio frequency channel corresponds to the compression mode parameter, so that the UE and the NodeB use the compressed mode parameter to perform the measurement of the inter-frequency or the different system, thereby saving the RF channel resource of the UE and improving the multi-carrier frequency.
  • System receive and transmit performance.
  • FIG. 1 is a schematic flowchart of a method for configuring a compression mode parameter according to Embodiment 1 of the present invention
  • FIG. 2 is a schematic flowchart of a method for configuring a compression mode parameter according to Embodiment 2 of the present invention
  • FIG. 4 is a schematic flowchart of a method for configuring a compressed mode parameter according to Embodiment 4 of the present invention
  • FIG. 5 is a schematic flowchart of a method for configuring a compressed mode parameter according to Embodiment 5 of the present invention
  • FIG. 6 is a schematic flowchart of a method for configuring a compression mode parameter according to Embodiment 6 of the present invention
  • FIG. 7 is a schematic flowchart of a method for configuring a compression mode parameter according to Embodiment 7 of the present invention
  • Embodiment 9 is a schematic flow chart of another measurement method according to Embodiment 9 of the present invention.
  • FIG. 10 is a schematic structural diagram of a radio network controller according to Embodiment 10 of the present invention.
  • FIG. 11 is a schematic structural diagram of a radio network controller according to Embodiment 11 of the present invention
  • FIG. 12 is a schematic structural diagram of a radio network controller according to Embodiment 12 of the present invention
  • FIG. 14 is a schematic structural diagram of a radio network controller according to Embodiment 14 of the present invention
  • 15 is a schematic structural diagram of a terminal according to Embodiment 15 of the present invention
  • FIG. 16 is a schematic structural diagram of a base station according to Embodiment 16 of the present invention.
  • FIG. 17 is a schematic structural diagram of a base station according to Embodiment 17 of the present invention.
  • Embodiment 18 is a schematic structural diagram of a base station according to Embodiment 18 of the present invention.
  • FIG. 19 is a schematic structural diagram of a measurement system according to Embodiment 19 of the present invention. detailed description
  • FIG. 1 is a schematic flowchart of a method for configuring a compression mode parameter according to Embodiment 1 of the present invention. As shown in FIG. 1 , a method for configuring a compression mode parameter in this embodiment may include the following steps:
  • Step 101 Obtain a mapping relationship between a carrier frequency and a radio channel of the UE.
  • Step 102 Configure a corresponding compression mode parameter for the at least one radio frequency channel with the carrier frequency or the carrier frequency of the radio frequency channel according to the mapping relationship between the carrier frequency and the radio frequency channel of the UE.
  • the number of carrier frequencies in this embodiment may be one, or may be multiple.
  • the former is a single carrier frequency system, and the latter is a multi-carrier frequency system.
  • the compression mode parameter in this embodiment is corresponding to the radio frequency channel of the UE that has the carrier frequency, and the mapping relationship between the carrier frequency and the RF channel of the UE may indicate the correspondence between the carrier frequency and the used RF channel of the UE. Through the above mapping relationship, it can be known which carrier frequency of a UE is established on a radio frequency channel of the UE.
  • Table 1 is a mapping table between the carrier frequency of the multi-carrier system and the RF channel of the UE, as shown in Table 1:
  • Table 1 Mapping relationship between carrier frequency and UE RF channel in multi-carrier system
  • the mapping relationship between the acquiring carrier frequency and the radio frequency channel of the UE in this embodiment may be obtained by the RNC from the UE, or may be determined by the RNC according to the radio frequency capability information of the UE acquired from the UE.
  • the RNC needs to send the mapping relationship between the carrier frequency and the radio channel of the UE to the UE.
  • the UE and the RNC are required.
  • the mapping relationship between the carrier frequency and the RF channel of the UE can be obtained, so that the UE can establish the carrier frequency on the corresponding RF channel.
  • the UE receives and transmits data through a carrier frequency.
  • the RNC can configure a corresponding compression mode parameter for the UE to establish a radio frequency channel with the carrier frequency or a carrier frequency of the radio frequency channel according to the mapping relationship between the obtained carrier frequency and the RF channel of the UE, for the inter-frequency transmission. Or measurement of a different system.
  • the RNC may further determine, according to the acquired radio frequency capability information of the UE that is sent by the UE, whether the radio frequency channel corresponding to the carrier frequency or the carrier frequency of the radio frequency channel is configured with a compression mode parameter, where the radio frequency capability information of the UE may include the UE. Radio frequency information such as the number of RF channels and the bandwidth of each RF channel.
  • the UE still has an RF channel (idle radio channel) that does not have a carrier frequency, and the compression mode may not be configured, and the compression mode is not started to perform measurement of the inter-frequency or different system;
  • the bandwidth of the radio frequency channel corresponding to the carrier frequency when the bandwidth of the radio frequency channel is greater than the frequency difference between the corresponding current working carrier frequency and the carrier frequency to be measured, the compression mode parameter may not be configured, and the compression mode is not activated. Perform measurements on different or different systems.
  • the UE can simultaneously receive and transmit data of multiple data channels on the carrier frequency. Similar to the single carrier frequency system described above, the RNC can perform compression corresponding to the carrier frequency of the UE that establishes the multiple carrier frequencies or the carrier frequency on the RF channel according to the mapping relationship between the acquired carrier frequency and the RF channel of the UE. Mode parameters for measurements at different or different systems. The RNC may further determine, according to the acquired radio frequency capability information of the UE that is sent by the UE, whether to configure a corresponding compression mode parameter for the radio frequency channel corresponding to the carrier frequency, where the radio frequency capability information of the UE may include the number of radio frequency channels of the UE, and each Radio frequency information such as the bandwidth of the RF channel.
  • the UE still has an RF channel (idle radio channel) that does not have a carrier frequency, and the compression mode may not be configured, and the compression mode is not started to perform the measurement of the inter-frequency or the different system;
  • the bandwidth of the radio frequency channel corresponding to the carrier frequency when the bandwidth of the radio frequency channel corresponding to one carrier frequency is greater than the frequency difference between the current working carrier frequency and the carrier frequency to be measured, the compression mode parameter may not be configured, Start compression mode for measurement of different frequency or different system.
  • the configuration method of the compressed mode parameter of the embodiment is applicable to the multi-carrier frequency system, and the RNC can configure the measurement mode of the inter-frequency or different system by using the compression mode according to the mapping relationship between the acquired carrier frequency and the RF channel of the UE.
  • Compressed mode parameters it is not necessary to configure a unified compression mode parameter for the radio link corresponding to the entire carrier frequency of the system, so that it is not required to start compression on the radio channel of the radio link corresponding to the carrier frequency of the UE.
  • For the measurement of the inter-frequency or different system only the RF channel with the carrier frequency selected by the system or the carrier frequency of the RF channel must be configured with different compression mode parameters.
  • the RF channel or configuration with the compression mode parameter is configured.
  • the compression mode is started on the RF channel corresponding to the carrier frequency of the compressed mode parameter to perform the measurement of the inter-frequency or the different system, thereby saving the resources of the RF channel of the UE, avoiding the waste of the RF channel resources of the UE, and improving the multi-carrier frequency system. Receive and send performance.
  • a multi-carrier system on one RF channel of the UE is established for all carrier frequencies of the single carrier frequency system or the system, and the work in the single carrier frequency system is performed.
  • the RF channel corresponding to the carrier frequency, or the RF mode corresponding to all carrier frequencies in the multi-carrier system or the compression mode parameters of all carrier frequencies configured on the RF channel are corresponding to one RF channel of the UE.
  • the embodiment can only configure corresponding compression mode parameters for the radio frequency channel, and there is no other configuration method; for the carrier frequency of the system to establish a multi-carrier frequency system on at least two radio frequency channels of the UE, there may be multiple configuration compression mode parameters. The method will be described in detail below by way of specific examples.
  • FIG. 2 is a schematic flowchart of a method for configuring a compression mode parameter according to Embodiment 2 of the present invention. As shown in FIG. 2, the method for configuring a compression mode parameter in this embodiment may include the following steps:
  • Step 201 The RNC acquires a mapping relationship between the carrier frequency and the radio frequency channel of the UE, where the carrier frequency is established on at least two radio frequency channels of the UE.
  • Step 202 The RNC configures a compression mode parameter for one of the RF channels on which the carrier frequency is established according to the mapping relationship between the carrier frequency and the RF channel of the UE.
  • Step 203 The RNC obtains a mapping relationship between the radio frequency channel and the radio link according to the mapping relationship between the pre-configured carrier frequency and the radio link and the mapping relationship between the carrier frequency and the radio channel of the UE.
  • Step 204 The RNC sends the mapping relationship between the radio frequency channel and the radio link to the NodeB.
  • Step 205 The RNC sends the mapping relationship between the compressed mode parameter and the radio frequency channel to the UE and the NodeB, respectively, for the UE to configure the compressed mode parameter.
  • RF channel and NodeB According to the mapping relationship between the RF channel and the wireless link, the compression mode is started on the wireless link carried by the RF channel configured with the compressed mode parameter, and the measurement of the different frequency or the different system is performed by using the compressed mode parameter.
  • the RNC may send the inter-frequency or different-system measurement control command to the UE to instruct the UE to perform the measurement of the inter-frequency or the different system.
  • the UE may detect the signal quality of the current working carrier frequency according to the measurement control command, and when detecting that the signal quality of the current working carrier frequency is less than a threshold When the threshold is used, the 2D event is reported to the RNC. After receiving the 2D event, the RNC may send an RNC to the UE and the NodeB to respectively send the mapping relationship between the compressed mode parameter and the radio frequency channel to the UE and the NodeB, so that the UE is configured with the compressed mode parameter.
  • the radio frequency channel and the NodeB start the compression mode on the radio link carried by the radio frequency channel configured with the compressed mode parameter according to the mapping relationship between the radio frequency channel and the radio link, and use the above compression mode parameter to perform measurement and transmission of the inter-frequency or different system.
  • a compressed mode command is initiated to instruct the UE and the NodeB to initiate a compressed mode for inter-frequency or hetero-system measurement.
  • the 2D event is consistent with the definition in the existing technical solution, and will not be described here.
  • the UE after receiving the compression mode start command, the UE performs data reception and transmission according to the configured compression mode parameter on the corresponding radio frequency channel to perform measurement of the inter-frequency or different system; the NodeB receives the compression mode.
  • the command is started, data is received and sent according to the configured compression mode parameter on the radio link carried by the radio channel, thereby saving resources of the radio channel of the UE, avoiding waste of the radio channel resource of the UE, and improving Receive and transmit performance of multiple carrier systems.
  • the compressed mode parameter corresponds to the RF channel of the UE, for different measurement purposes, for example: Time Division Duplex (TDD) measurement (TDD measurement), frequency division duplex ( DD carrier measurement BSIC) GSM Initial BSIC identification, GSM BSIC re-confirmation, multi-carrier measurement, etc., and the corresponding compression mode parameters may be separate for different RF channels of the UE. Configuration, that is, can be repeated
  • the method for configuring the compressed mode parameters provided by the embodiment, the measurement of the inter-frequency or the different system for different measurement purposes in each radio channel can avoid the measurement task of one RF channel of the UE being too heavy in the multi-carrier system.
  • the receiving and transmitting of data of the data channel on the carrier frequency corresponding to the radio frequency channel is affected.
  • FIG. 3 is a schematic flowchart of a method for configuring a compression mode parameter according to Embodiment 3 of the present invention. As shown in FIG. 3, the method for configuring a compression mode parameter in this embodiment may include the following steps:
  • Step 301 The RNC obtains a mapping relationship between the carrier frequency and the radio frequency channel of the UE, where the carrier frequency is established on at least two radio frequency channels of the UE.
  • Step 302 The RNC configures, according to the mapping relationship between the carrier frequency and the radio frequency channel of the UE, a compression mode parameter for at least two radio frequency channels on which the carrier frequency is set, so that the transmission gaps of the radio frequency channels are staggered from each other;
  • Step 303 The RNC obtains a mapping relationship between the radio frequency channel and the radio link according to the mapping relationship between the pre-configured carrier frequency and the radio link and the mapping relationship between the carrier frequency and the radio channel of the UE.
  • Step 304 The RNC sends the mapping relationship between the radio frequency channel and the radio link to the NodeB.
  • Step 305 The RNC sends the mapping relationship between the compressed mode parameter and the radio frequency channel to the UE and the NodeB, respectively, for the UE to be configured with the compressed mode parameter.
  • the radio channel and the NodeB start the compression mode on the radio link carried by the radio channel configured with the compressed mode parameter according to the mapping relationship between the radio channel and the radio link, and perform the measurement of the inter-frequency or different system by using the above-mentioned compression mode parameter.
  • the RNC may send the inter-frequency or different-system measurement control command to the UE to instruct the UE to perform the measurement of the inter-frequency or the different system.
  • the UE may detect the signal quality of the current working carrier frequency according to the measurement control command when at least two radio frequency channels of the UE are configured with the carrier frequency, and the signal quality of the current working carrier frequency is detected to be less than
  • a threshold threshold is used, the 2D event is reported to the RNC.
  • the RNC may send a start compressed mode command to the UE and the NodeB to instruct the UE and the NodeB to start the compressed mode for the measurement of the inter-frequency or different system.
  • the 2D events are consistent with the definitions in the existing technical solutions and will not be described here.
  • the UE after receiving the compression mode start command, the UE performs data reception and transmission according to the configured compression mode parameter on the corresponding at least two radio frequency channels to perform an inter-frequency or different system.
  • the NodeB After receiving the compression mode start command, the NodeB performs data reception and transmission according to the configured compression mode parameter on the wireless link carried by the at least two radio frequency channels, because the at least two configurations have compression mode parameters.
  • the transmission gaps of the RF channels are staggered from each other, which improves the speed of detecting inter-frequency or different-system signals and reduces the impact on the reception and transmission performance of a single RF channel in a multi-carrier system.
  • FIG. 4 is a schematic flowchart of a method for configuring a compression mode parameter according to Embodiment 4 of the present invention.
  • the method in this embodiment is directed to a dual carrier frequency system, where a carrier frequency with a good signal quality is called a primary carrier frequency of the UE.
  • the other carrier frequency is called the secondary carrier frequency of the UE.
  • the method for configuring the compression mode parameter in this embodiment may include the following steps:
  • Step 401 The RNC obtains a mapping relationship between the carrier frequency and the RF channel of the UE, where the carrier frequency includes a primary carrier frequency and a secondary carrier frequency, and the primary carrier frequency and the secondary carrier frequency are respectively established on the two RF channels of the UE;
  • Step 402 The RNC configures a compression mode parameter for establishing an RF channel with a secondary carrier frequency according to the mapping relationship between the carrier frequency and the RF channel of the UE.
  • Step 403 The RNC acquires a mapping relationship between the radio frequency channel and the radio link according to the mapping relationship between the pre-configured carrier frequency and the radio link and the mapping relationship between the carrier frequency and the radio channel of the UE.
  • Step 404 The RNC sends the mapping relationship between the radio frequency channel and the radio link to the NodeB.
  • Step 405 The RNC sends the mapping relationship between the compressed mode parameter and the radio frequency channel with the auxiliary carrier frequency to the UE and the NodeB, respectively, for the UE to be configured.
  • the radio channel with the compressed mode parameter and the NodeB start the compression mode on the radio link carried by the radio channel configured with the compressed mode parameter according to the mapping relationship between the radio channel and the radio link, and use the configured mode parameter to perform different frequency or different Systematic measurement.
  • a compression mode parameter is configured for a radio frequency channel corresponding to a secondary carrier frequency, and a compression mode is started on a radio frequency channel with a secondary carrier frequency, and an RF channel with a primary carrier frequency is established. Perform normal data transmission and reception services. The reasons are as follows:
  • the correct reception of the High Speed Downlink Packet Access (HSDPA) data of the secondary carrier frequency corresponding to the cell is the uplink feedback channel of the primary carrier frequency corresponding to the cell, that is, the high speed dedicated The High Speed Dedicated Physical Control Channel (HS-DPCCH) performs uplink feedback.
  • the secondary carrier frequency does not have an uplink feedback channel. If the compressed mode is started on the radio channel of the UE with the primary carrier frequency, it not only affects the reception and transmission of data on the data channel on the primary carrier, but also affects the reception and transmission of data on the secondary carrier frequency data channel. Therefore, it is possible to select a compression mode on the RF channel on which the secondary carrier frequency is established, and receive and transmit data according to the compression mode parameter on the RF channel to perform measurement of the inter-frequency or different system.
  • the idea of this embodiment can also be utilized, and can be started on the RF channel of any one or several UEs with the auxiliary carrier frequency.
  • the compression mode performs measurement of an inter-frequency or different system.
  • the compressed mode parameter is configured for the radio frequency channel of the UE, and corresponds to the radio frequency channel of the UE.
  • the compressed mode parameter in the embodiment of the present invention may also be configured for a carrier frequency on a radio frequency channel of the UE, corresponding to a carrier frequency on a radio frequency channel of the UE.
  • FIG. 5 is a schematic flowchart of a method for configuring a compression mode parameter according to Embodiment 5 of the present invention. As shown in FIG. 5, the method for configuring a compression mode parameter in this embodiment may include the following steps:
  • Step 501 The RNC obtains a mapping relationship between the carrier frequency and the radio channel of the UE, where the carrier frequency is established on at least two radio frequency channels of the UE.
  • Step 502 The RNC configures a compression mode parameter for a carrier frequency of the radio frequency channel on which the carrier frequency is established according to the mapping relationship between the carrier frequency and the radio frequency channel of the UE.
  • Step 503 The RNC sends the mapping relationship between the compressed mode parameter and the carrier frequency to the UE and the NodeB, respectively, for the UE to perform on the radio frequency channel corresponding to the carrier frequency configured with the compressed mode parameter, and the NodeB according to the carrier frequency and the wireless link.
  • the mapping relationship starts the compression mode on the radio link corresponding to the carrier frequency configured with the compressed mode parameter, and performs the measurement of the inter-frequency or the different system by using the compression mode parameter corresponding to the carrier frequency.
  • the RNC may send the inter-frequency or different-system measurement control command to the UE to instruct the UE to perform the measurement of the inter-frequency or the different system.
  • the UE may detect the signal quality of the current working carrier frequency according to the measurement control command, and when detecting the current working carrier frequency signal When the quality is less than a threshold threshold, the 2D event is reported to the RNC. After receiving the 2D event, the RNC can send the UE to the NodeB.
  • the transmitting RNC sends the mapping relationship between the compressed mode parameter and the carrier frequency to the UE and the NodeB, respectively, for the mapping relationship between the carrier frequency and the wireless link on the radio channel corresponding to the carrier frequency configured with the compressed mode parameter and the NodeB.
  • the compressed mode is started on the radio link corresponding to the carrier frequency configured with the compressed mode parameter, and the compressed mode command is used to perform the measurement of the inter-frequency or different system to start the compressed mode command, to instruct the UE and the NodeB to start the compressed mode to perform the different frequency. Or measurement of a different system.
  • the 2D event is consistent with the definition in the existing technical solution, and will not be described here.
  • the UE after receiving the compression mode start command, the UE performs data reception and transmission according to the configured compression mode parameter on the radio frequency channel where the corresponding carrier frequency is located, to perform measurement of the inter-frequency or different system; After receiving the compression mode start command, data is received and transmitted according to the configured compression mode parameter on the corresponding radio link corresponding to the carrier frequency, thereby saving resources of the UE's RF channel and avoiding the RF channel of the UE. The waste of resources improves the reception and transmission performance of multi-carrier systems.
  • the compressed mode parameter corresponds to the RF channel of the UE, for different measurement purposes, such as: TDD measurement, FDD measurement, RSSI measurement, GSM BSIC confirmation, GSM BSIC re-confirmation, multi-carrier frequency measurement
  • the corresponding compression mode parameter may be separately configured for the carrier frequency on the different RF channels of the UE, that is, the configuration method of the compression mode parameter provided in this embodiment may be repeatedly performed, and different measurement purposes are performed on each RF channel.
  • the measurement of the inter-frequency or inter-system can avoid the measurement task of one radio channel of the UE being too heavy in the multi-carrier system, affecting the reception and transmission of the data channel on the carrier frequency corresponding to the radio channel.
  • FIG. 6 is a schematic flowchart of a method for configuring a compression mode parameter according to Embodiment 6 of the present invention. As shown in FIG. 6, the method for configuring a compression mode parameter in this embodiment may include the following steps:
  • Step 601 The RNC acquires a mapping relationship between the carrier frequency and the radio frequency channel of the UE, where the carrier frequency is established on at least two radio frequency channels of the UE.
  • Step 602 The RNC configures, according to the mapping relationship between the carrier frequency and the radio frequency channel of the UE, a compression mode parameter for the carrier frequency of the at least two radio frequency channels on which the carrier frequency is established, so that the transmission gaps of the radio frequency channels are staggered from each other;
  • Step 603 The RNC sends the mapping relationship between the compressed mode parameter and the carrier frequency to the UE and the NodeB, respectively, for the UE to perform on the radio frequency channel corresponding to the carrier frequency configured with the compressed mode parameter and the NodeB according to the carrier frequency and the wireless link. Mapping relationship in a carrier frequency configured with compressed mode parameters The compression mode is started on the corresponding wireless link, and the measurement of the different frequency or different system is performed by using the above compression mode parameter.
  • the RNC may send the inter-frequency or different-system measurement control command to the UE to instruct the UE to perform the measurement of the inter-frequency or the different system.
  • the UE may detect the signal quality of the current working carrier frequency according to the measurement control command when at least two carrier frequencies of the RF channel on which the carrier frequency is established are configured with the compression mode parameter, when the current working carrier frequency is detected.
  • the 2D event is reported to the RNC.
  • the RNC may send a start compressed mode command to the UE and the NodeB to instruct the UE and the NodeB to start the compressed mode for the measurement of the inter-frequency or the different system.
  • the 2D event is consistent with the definition in the existing technical solution, and will not be described here.
  • the UE after receiving the compression mode start command, the UE performs data reception and transmission according to the configured compression mode parameter on at least two radio frequency channels where the corresponding carrier frequency is located, to perform measurement of the inter-frequency or different system.
  • the NodeB After receiving the compression mode start command, the NodeB performs data reception and transmission according to the configured compression mode parameter on the radio link corresponding to the corresponding carrier frequency, because at least the carrier frequency corresponding to the compressed mode parameter is configured.
  • the transmission gaps of the two RF channels are staggered from each other, which improves the speed of detecting inter-frequency or inter-system signals and reduces the impact on the reception and transmission performance of a single RF channel in a multi-carrier system.
  • FIG. 7 is a schematic flowchart of a method for configuring a compression mode parameter according to Embodiment 7 of the present invention.
  • the method in this embodiment is directed to a dual carrier frequency system, where a carrier frequency with good signal quality is called a primary carrier frequency of the UE.
  • the other carrier frequency is called the secondary carrier frequency of the UE.
  • the method for configuring the compressed mode parameter in this embodiment may include the following steps:
  • Step 701 The RNC obtains a mapping relationship between the carrier frequency and the RF channel of the UE, where the carrier frequency includes a primary carrier frequency and a secondary carrier frequency, and the primary carrier frequency and the secondary carrier frequency are respectively established on the two RF channels of the UE;
  • Step 702 The RNC configures a compression mode parameter for the secondary carrier frequency according to the mapping relationship between the carrier frequency and the RF channel of the UE.
  • Step 703 The RNC sends the mapping relationship between the compressed mode parameter and the secondary carrier frequency to the UE and the NodeB, respectively, for the UE to perform on the radio frequency channel corresponding to the secondary carrier frequency configured with the compressed mode parameter, and the NodeB according to the carrier frequency and the wireless chain.
  • the mapping relationship of the road is configured with the auxiliary parameters of the compressed mode.
  • the compressed mode is started on the corresponding wireless link of the carrier frequency, and the measured mode parameter is used to perform the measurement of the inter-frequency or the different system.
  • a compression mode parameter is configured for the secondary carrier frequency, and a compression mode is started on the RF channel with the auxiliary carrier frequency, and the normal operation is performed on the RF channel with the primary carrier frequency.
  • Data transmission and reception business The reason is the same as the reason described in the fourth embodiment of the present invention, and details are not described herein again.
  • the idea of the embodiment can also be utilized, and the radio frequency channel with the auxiliary carrier frequency can be established on any one or several UEs. Start compression mode for measurement of different frequency or different system.
  • FIG. 8 is a schematic flowchart of a measurement method according to Embodiment 8 of the present invention. As shown in FIG. 8, the measurement method in this embodiment may include the following steps:
  • Step 801 The UE acquires, according to a mapping relationship between the carrier frequency and the radio frequency channel of the UE, a corresponding compression mode parameter configured by the at least one radio frequency channel with the carrier frequency or the carrier frequency configured on the radio frequency channel.
  • Step 802 The UE starts a compression mode on a radio frequency channel corresponding to the compressed mode parameter, and performs measurement of the inter-frequency or different system by using the compressed mode parameter.
  • the compression mode parameter obtained by the UE in the embodiment may be obtained by the mapping relationship between the compressed mode parameter and the radio frequency channel sent by the RNC, and may also be obtained by the mapping relationship between the compressed mode parameter and the carrier frequency sent by the RNC.
  • the method for configuring the compressed mode parameters by the RNC can be referred to the configuration method of the compressed mode parameters provided by the foregoing second, third, fourth, fifth, sixth and seventh embodiments of the present invention.
  • the UE obtains a compression mode parameter configured by the RNC according to the mapping relationship between the acquired carrier frequency and the radio frequency channel of the UE, and at least one radio frequency channel with a carrier frequency or a carrier frequency of the radio frequency channel. It is not necessary to start the compression mode on the radio channel of the radio link corresponding to the carrier frequency of the UE to perform the measurement of the inter-frequency or the different system, and only need to configure the radio channel with the compression mode parameter or the parameter with the compression mode.
  • the compression mode is started on the radio frequency channel corresponding to the carrier frequency to perform the measurement of the inter-frequency or the different system, thereby saving the resources of the radio channel of the UE, avoiding waste of the radio channel resources of the UE, and improving the receiving and transmitting performance of the multi-carrier system. .
  • FIG. 9 is a schematic flowchart of another measurement method according to Embodiment 9 of the present invention, as shown in FIG.
  • the measuring method of this embodiment may include the following steps:
  • Step 901 The NodeB acquires, according to a mapping relationship between the carrier frequency and the radio frequency channel of the UE, a corresponding compression mode parameter configured for the radio frequency channel with the carrier frequency or the carrier frequency configured on the radio frequency channel;
  • Step 902 The NodeB starts a compression mode on a wireless link corresponding to the compressed mode parameter, and performs measurement of the inter-frequency or different system by using the compressed mode parameter.
  • the compression mode parameter acquired by the NodeB may be a mapping relationship between the compressed mode parameter and the radio frequency channel sent by the RNC, a mapping relationship between the carrier frequency and the radio link, and a mapping relationship between the carrier frequency and the radio channel of the UE.
  • the obtained mapping relationship between the obtained RF channel and the wireless link is obtained, and the mapping relationship between the compressed mode parameter and the carrier frequency and the mapping relationship between the carrier frequency and the wireless link can be obtained through the RNC.
  • the method for configuring the compressed mode parameters by the RNC can be referred to the configuration method of the compressed mode parameters provided by the foregoing second, third, fourth, fifth, sixth and seventh embodiments of the present invention.
  • the NodeB obtains a compression mode parameter configured by the RNC according to the mapping relationship between the acquired carrier frequency and the radio frequency channel of the UE, and at least one radio frequency channel with a carrier frequency or a carrier frequency of the radio frequency channel. It is not necessary to start the compression mode on the radio link carried by all the used RF channels for the measurement of the inter-frequency or the different system, only the radio link carried by the RF channel configured with the compression mode parameter or configured with the compression mode.
  • the compression mode is started on the radio link corresponding to the carrier frequency of the parameter to perform measurement of the inter-frequency or different system, thereby saving the resources of the radio channel of the UE, avoiding the waste of the radio channel resource of the UE, and improving the multi-carrier frequency system. Receive and send performance.
  • FIG. 10 is a schematic structural diagram of a radio network controller according to Embodiment 10 of the present invention, as shown in FIG.
  • the RNC of this embodiment may include a first obtaining module 1001 and a configuration module 1002.
  • the first obtaining module 1001 acquires a mapping relationship between the carrier frequency and the radio frequency channel of the terminal, and the configuration module 1002 establishes a carrier frequency according to the mapping relationship between the carrier frequency acquired by the first obtaining module 1001 and the radio channel of the terminal.
  • the compression mode parameter corresponding to the carrier frequency configuration of the RF channel or the RF channel.
  • the mapping relationship between the carrier frequency and the RF channel of the UE is obtained by the first acquiring module, so that the configuration module can configure and utilize the RF channel of the UE according to the mapping relationship between the carrier frequency acquired by the first acquiring module and the RF channel of the UE.
  • the compressed mode parameter required for the measurement of the inter-frequency or different system in the compressed mode is not need to configure a unified compression mode parameter for the radio link corresponding to the entire carrier frequency of the system, so that the radio channel of the radio link corresponding to the carrier frequency of the UE is not required to be used.
  • the radio frequency channel or the radio frequency channel corresponding to the carrier frequency of the compressed mode parameter is used to start the compression mode for the measurement of the inter-frequency or the different system, thereby saving the resources of the radio channel of the UE, avoiding waste of the radio channel resources of the UE, and improving Receive and transmit performance of multiple carrier systems.
  • FIG. 11 is a schematic structural diagram of a radio network controller according to Embodiment 11 of the present invention.
  • the first obtaining module 1001 in this embodiment may include a first acquiring unit, as compared with the tenth embodiment of the present invention. 1101.
  • the mapping relationship between the carrier frequency and the radio channel of the terminal is obtained from the terminal.
  • FIG. 12 is a schematic structural diagram of a radio network controller according to Embodiment 12 of the present invention.
  • the first obtaining module 1001 in this embodiment may include a second acquiring unit, as compared with the tenth embodiment of the present invention. 1201 and first determining unit 1202.
  • the second obtaining unit 1201 determines the radio frequency capability information of the terminal
  • the first determining unit 1202 determines the mapping relationship between the carrier frequency and the radio frequency channel of the terminal according to the radio frequency capability information of the terminal acquired by the second acquiring unit 1201.
  • FIG. 13 is a schematic structural diagram of a radio network controller according to Embodiment 13 of the present invention, as shown in FIG.
  • the configuration module 1002 in this embodiment may include a first configuration unit 1301, a second configuration unit 1302, and a third configuration unit 1303.
  • the first configuration unit 1301 may be configured to establish a carrier frequency according to the mapping relationship between the carrier frequency acquired by the first obtaining module 1001 and the RF channel of the UE, when the carrier frequency is established on the at least two radio frequency channels of the UE.
  • the RF channel configuration compression mode parameter when the carrier frequency is established on the at least two radio frequency channels of the UE, the second configuration unit 1302 may be specifically configured according to the mapping relationship between the carrier frequency acquired by the first obtaining module 1001 and the RF channel of the UE. Configuring different compression mode parameters for at least two RF channels with carrier frequencies, so that the transmission gaps of the RF channels are offset from each other; when the carrier frequency includes a primary carrier frequency and at least one secondary carrier frequency, and the primary carrier frequency When the at least one secondary carrier frequency is set on different radio frequency channels of the UE, the third configuration unit 1303 may specifically establish at least one auxiliary carrier according to the mapping relationship between the carrier frequency acquired by the first obtaining module 1001 and the RF channel of the UE.
  • the frequency RF channel is configured with compression mode parameters.
  • the RNC of this embodiment may further include a first sending module 1304, configured to send, to the UE, the compressed mode parameter configured by the first configuration unit 1301, the second configuration unit 1302, or the third configuration unit 1303, and the foregoing radio frequency.
  • the configuration module 1002 in this embodiment that is, the compression mode parameter configured by the first configuration unit 1301, the second configuration unit 1302, or the third configuration unit 1303, is not only sent to the UE but also sent to the corresponding The NodeB is such that the UE and the NodeB simultaneously use the compressed mode parameter to receive and transmit data.
  • the RNC of this embodiment may further include a determining module 1305 and a second sending module 1306.
  • the determining module 1305 determines the mapping relationship between the radio frequency channel and the radio link according to the mapping relationship between the carrier frequency and the radio link and the mapping relationship between the carrier frequency acquired by the first acquiring module 1001 and the radio channel of the terminal, and the second sending module 1306 And transmitting, by the NodeB, the mapping relationship between the foregoing compressed mode parameter and the foregoing radio frequency channel, and the mapping relationship between the radio frequency channel and the radio link determined by the determining module 1305, for the NodeB to carry the radio link carried by the radio channel configured with the compressed mode parameter.
  • the compression mode is started, and the measurement of the different frequency or the different system is performed by using the compression mode parameter corresponding to the above RF channel.
  • the configuration module 1002 in the thirteenth embodiment of the present invention is the first configuration unit 1301, and the second The compressed mode parameter configured by the configuration unit 1302 or the third configuration unit 1303 is performed for a radio frequency channel of the UE, and the compressed mode parameter corresponds to a radio frequency channel of the UE.
  • the configuration module 1002 may further configure a compression mode parameter for the carrier frequency on the radio channel of the UE, where the compression mode parameter corresponds to a carrier frequency on the radio channel of the UE.
  • FIG. 14 is a schematic structural diagram of a radio network controller according to Embodiment 14 of the present invention. As shown in FIG. 14, the configuration module 1002 in this embodiment may include a fourth configuration unit 1401. The fifth configuration unit 1402 and the sixth configuration unit 1403.
  • the fourth configuration unit 1401 may specifically establish a carrier frequency according to the mapping relationship between the carrier frequency acquired by the first obtaining module 1001 and the RF channel of the UE, when the carrier frequency is established on the at least two radio frequency channels of the UE.
  • the carrier frequency configuration of the radio frequency channel is configured to be a compressed mode parameter.
  • the fifth configuration unit 1402 may be specifically configured according to the carrier frequency acquired by the first acquiring module 1001 and the radio frequency channel of the UE.
  • the mapping relationship is configured to configure different compression mode parameters for the carrier frequencies of the at least two RF channels on which the carrier frequency is established, so that the transmission gaps of the RF channels are staggered from each other; when the carrier frequency includes a primary carrier frequency and at least one auxiliary
  • the sixth configuration unit 1403 may specifically map the carrier frequency acquired by the first obtaining module 1001 to the radio channel of the UE according to the carrier frequency, and the primary carrier frequency and the at least one secondary carrier frequency are established on different radio frequency channels of the UE. And configuring a compression mode parameter for establishing a secondary carrier frequency on the RF channel having at least one secondary carrier frequency.
  • the RNC of this embodiment may further include a third sending module 1404, configured to send, to the UE, the compression mode parameter configured by the fourth configuration unit 1401, the fifth configuration unit 1402, or the sixth configuration unit 1403, and the foregoing
  • the frequency mapping relationship is used for the UE to start the compression mode on the radio frequency channel corresponding to the carrier frequency configured with the compressed mode parameter, and the above-mentioned compression mode parameter is used for the measurement of the inter-frequency or the different system.
  • the configuration parameters of the configuration module 1002 in the embodiment are not only sent to the UE but also sent to the corresponding
  • the NodeB is such that the UE and the NodeB simultaneously use the compressed mode parameter to receive and transmit data.
  • the RNC of this embodiment may further include a fourth sending module 1405, configured to send, to the NodeB, a mapping relationship between the compressed mode parameter and the carrier frequency (or secondary carrier frequency), for the NodeB to use the carrier frequency and the wireless chain.
  • FIG. 15 is a schematic structural diagram of a terminal according to Embodiment 15 of the present invention.
  • the UE in this embodiment may include a second acquiring module 1501 and a first measuring module 1502.
  • the second obtaining module 1501 obtains, according to the mapping relationship between the carrier frequency and the radio frequency channel of the UE, the corresponding compression mode parameter of the at least one radio frequency channel with the carrier frequency or the carrier frequency configured on the radio frequency channel, and the first measurement module.
  • 1502 starts a compression mode on a radio frequency channel corresponding to the compression mode parameter acquired by the second acquisition module 1501, and performs measurement of the inter-frequency or different system by using the compression mode parameter.
  • the second acquisition module obtains, by the second acquiring module, a compression mode configured by the RNC according to the mapping relationship between the acquired carrier frequency and the radio frequency channel of the UE, at least one radio frequency channel with a carrier frequency or a carrier frequency on the radio frequency channel.
  • the parameter does not need to start the compression mode on the radio channel of the radio link corresponding to the carrier frequency of the UE to perform the measurement of the inter-frequency or the different system.
  • the first measurement module only needs to start the compression mode on the RF channel configured with the compressed mode parameter or the RF channel corresponding to the carrier frequency configured with the compressed mode parameter to perform the measurement of the inter-frequency or the different system, thereby saving the resources of the UE's RF channel.
  • the waste of the RF channel resources of the UE is avoided, and the receiving and transmitting performance of the multi-carrier system is improved.
  • FIG. 16 is a schematic structural diagram of a base station according to Embodiment 16 of the present invention.
  • the NodeB of this embodiment may include a third obtaining module 1601 and a second measuring module 1602.
  • the third acquiring module 1601 acquires, according to the mapping relationship between the carrier frequency and the radio frequency channel of the UE, the corresponding compression mode parameter of the at least one radio frequency channel with the carrier frequency or the carrier frequency configured on the radio frequency channel, and the second measurement module.
  • 1602 starts a compression mode on a wireless link corresponding to the compressed mode parameter, and performs measurement of the different frequency or different system by using the compressed mode parameter.
  • the function of the NodeB in the foregoing embodiment 9 of the present invention can be implemented by the NodeB provided in this embodiment.
  • the third acquisition module obtains, by the third acquiring module, a compression mode configured by the RNC according to the mapping relationship between the acquired carrier frequency and the radio frequency channel of the UE, at least one radio frequency channel with a carrier frequency or a carrier frequency on the radio frequency channel.
  • the parameters eliminate the need to initiate compression mode on all wireless links carried by the used RF channel for inter-frequency or hetero-system measurements.
  • the second measurement module only needs to start the compression mode on the wireless link carried by the RF channel configured with the compressed mode parameter or the wireless link corresponding to the carrier frequency configured with the compressed mode parameter to perform the measurement of the inter-frequency or the different system, thereby saving UE
  • the resources of the radio channel avoid the waste of the radio channel resources of the UE, and improve the receiving and transmitting performance of the multi-carrier system.
  • FIG. 17 is a schematic structural diagram of a base station according to Embodiment 17 of the present invention.
  • the third obtaining module 1601 in this embodiment may further include a third acquiring unit. 1701 and a second determining unit 1702.
  • the third obtaining unit 1701 acquires a mapping relationship between the compressed mode parameter and the radio frequency channel, a mapping relationship between the carrier frequency and the radio link, and a mapping relationship between the carrier frequency and the radio frequency channel of the UE, and second
  • the determining unit 1702 determines a mapping relationship between the compressed mode parameter and the wireless link according to the mapping relationship acquired by the third obtaining unit 1701.
  • the compressed mode parameter determined by the second determining unit is configured by the RNC for the radio frequency channel of the UE, where the compressed mode parameter corresponds to the radio frequency channel of the UE.
  • FIG. 18 is a schematic structural diagram of a base station according to Embodiment 18 of the present invention.
  • the third obtaining module 1601 in this embodiment may further include a fourth acquiring unit. 1801 and a third determining unit 1802.
  • the fourth obtaining unit 1801 acquires a mapping relationship between the compressed mode parameter and the carrier frequency and a mapping relationship between a carrier frequency and a wireless link
  • the third determining unit 1802 is configured according to the fourth acquiring unit.
  • the mapping relationship acquired by the 1801 determines the mapping relationship between the compressed mode parameter and the wireless link.
  • the compressed mode parameter determined by the third determining unit is configured by the RNC for the carrier frequency on the radio frequency channel of the UE, and the compressed mode parameter corresponds to the carrier frequency on the radio frequency channel of the UE.
  • FIG. 19 is a schematic structural diagram of a measurement system according to Embodiment 19 of the present invention.
  • the measurement system of this embodiment may include a radio network controller 1901, configured to acquire a mapping relationship between a carrier frequency and a radio channel of a UE. Configuring, according to the obtained mapping relationship between the carrier frequency and the radio channel of the terminal, a compression mode parameter corresponding to the carrier frequency of the at least one radio frequency channel or the radio frequency channel, for the UE and the NodeB in the at least one Measurements of inter-frequency or hetero-systems are performed on the RF channel.
  • the foregoing method of the first embodiment of the present invention, the RNC in the second embodiment of the present invention, the RNC in the third embodiment of the present invention, the RNC in the fourth embodiment of the present invention, the RNC in the fifth embodiment of the present invention, and the RNC and the present embodiment in the sixth embodiment of the present invention The functions of the RNC in the seventh embodiment of the invention may be the measurement system provided by the embodiment.
  • the wireless network controller 1901 in the system is implemented.

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Description

压缩模式参数的配置及测量方法、 装置、 系统 技术领域
本发明涉及移动通信技术领域， 特别涉及一种压缩模式参数的配置及测 量方法、 装置、 系统。 背景技术
多载频技术的引入可以使得宽带码分多址 （Wideband Code Division Multiple Access,简称 WCDMA )系统中的高速分组接入（ High Speed Packet Access, 简称 HSPA )技术支持的上下行数据峰值速率大大提高。 在多载频 HSPA系统（多载频系统）中， UE可以同时接收和发送多个载频上数据信道 的数据。
现有的釆用多载频技术的 HSPA系统即多载频系统中， 无线网络控制器 ( Radio Network Controller, 简称 RNC )需要为系统的全部载频所对应的无 线链路都配置统一的压缩模式参数， 终端 （User Equipment, 简称 UE )和 基站（NodeB )可以分别在 UE全部的建立有载频的射频通道 (已用射频通 道）和该全部已用射频通道所承载的无线链路上启动压缩模式， 进行异频或 异系统的测量， 浪费了 UE的射频通道资源， 影响了 UE的每个射频通道对 应的载频上数据信道的数据的接收和发送， 降低了多载频系统的接收和发送 性能。 发明内容
本发明实施例提供一种压缩模式参数的配置及测量方法、 装置、 系统， 用以节约 UE的射频通道资源， 提高多载频系统的接收和发送性能。
本发明实施例提供了一种压缩模式参数的配置方法， 包括：
获取载频与终端的射频通道的映射关系；
根据所述载频与终端的射频通道的映射关系， 为至少一个建立有载频的 射频通道或所述射频通道上的载频配置对应的压缩模式参数。
本发明实施例还提供了一种测量方法， 包括： 获取无线网络控制器根据载频与终端的射频通道的映射关系为至少一个 建立有载频的射频通道或所述射频通道上的载频配置的对应的压缩模式参 数；
在对应有压缩模式参数的射频通道上启动压缩模式， 利用所述压缩模式 参数进行异频或异系统的测量。
本发明实施例还提供了另一种测量方法， 包括：
获取无线网络控制器根据载频与终端的射频通道的映射关系为至少一个 建立有载频的射频通道或所述射频通道上的载频配置的对应的压缩模式参 数；
在对应有压缩模式参数的无线链路上启动压缩模式， 利用所述压缩模式 参数进行异频或异系统的测量。
本发明实施例又提供了一种无线网络控制器， 包括：
第一获取模块， 用于获取载频与终端的射频通道的映射关系；
配置模块， 用于才艮据所述载频与终端的射频通道的映射关系， 为至少一 个建立有载频的射频通道或所述射频通道上的载频配置对应的压缩模式参 数。
本发明实施例又提供了一种终端， 包括：
第二获取模块， 用于获取无线网络控制器根据载频与终端的射频通道的 映射关系为至少一个建立有载频的射频通道或所述射频通道上的载频配置的 对应的压缩模式参数；
第一测量模块，用于在对应有压缩模式参数的射频通道上启动压缩模式， 利用所述压缩模式参数进行异频或异系统的测量。
本发明实施例又提供了一种基站， 包括：
第三获取模块， 用于获取无线网络控制器根据载频与终端的射频通道的 映射关系为至少一个建立有载频的射频通道或所述射频通道上的载频配置的 对应的压缩模式参数；
第二测量模块，用于在对应有压缩模式参数的无线链路上启动压缩模式， 利用所述压缩模式参数进行异频或异系统的测量。
本发明实施例再提供了一种测量系统， 包括无线网络控制器， 用于获取 载频与终端的射频通道的映射关系， 根据所述载频与终端的射频通道的映射 关系， 为至少一个建立有载频的射频通道或所述射频通道上的载频配置对应 的压缩模式参数， 以供终端和基站在所述至少一个射频通道上进行异频或异 系统的测量。
由上述技术方案可知，本发明实施例通过 RNC获取载频与 UE的射频通 道的映射关系， 使得 RNC能够才艮据所述载频与 UE的射频通道的映射关系， 为至少一个建立有载频的射频通道或上述射频通道上的载频配置对应的压缩 模式参数， 以供 UE和 NodeB利用压缩模式参数进行异频或异系统的测量， 从而节约了 UE的射频通道资源， 提高了多载频系统的接收和发送性能。 附图说明 施例或现有技术描述中所需要使用的附图作简单地介绍， 显而易见地， 下面 描述中的附图仅仅是本发明的一些实施例， 对于本领域普通技术人员来讲， 在不付出创造性劳动性的前提下， 还可以根据这些附图获得其他的附图。
图 1为本发明实施例一提供的压缩模式参数的配置方法的流程示意图； 图 2为本发明实施例二提供的压缩模式参数的配置方法的流程示意图； 图 3为本发明实施例三提供的压缩模式参数的配置方法的流程示意图； 图 4为本发明实施例四提供的压缩模式参数的配置方法的流程示意图； 图 5为本发明实施例五提供的压缩模式参数的配置方法的流程示意图； 图 6为本发明实施例六提供的压缩模式参数的配置方法的流程示意图； 图 7为本发明实施例七提供的压缩模式参数的配置方法的流程示意图； 图 8为本发明实施例八提供的一种测量方法的流程示意图；
图 9为本发明实施例九提供的另一种测量方法的流程示意图；
图 10为本发明实施例十提供的无线网络控制器的结构示意图；
图 11为本发明实施例十一提供的无线网络控制器的结构示意图； 图 12为本发明实施例十二提供的无线网络控制器的结构示意图； 图 13为本发明实施例十三提供的无线网络控制器的结构示意图； 图 14为本发明实施例十四提供的无线网络控制器的结构示意图； 图 15为本发明实施例十五提供的终端的结构示意图；
图 16为本发明实施例十六提供的基站的结构示意图；
图 17为本发明实施例十七提供的基站的结构示意图；
图 18为本发明实施例十八提供的基站的结构示意图；
图 19为本发明实施例十九提供的测量系统的结构示意图。 具体实施方式
下面将结合本发明实施例中的附图， 对本发明实施例中的技术方案进行 清楚、 完整地描述， 显然， 所描述的实施例仅仅是本发明一部分实施例， 而 不是全部的实施例。 基于本发明中的实施例， 本领域普通技术人员在没有做 出创造性劳动前提下所获得的所有其他实施例， 都属于本发明保护的范围。
图 1为本发明实施例一提供的压缩模式参数的配置方法的流程示意图， 如图 1所示， 本实施例的压缩模式参数的配置方法可以包括以下步骤：
步骤 101、 获取载频与 UE的射频通道的映射关系；
步骤 102、 根据上述载频与 UE的射频通道的映射关系， 为至少一个建 立有载频的射频通道或该射频通道上的载频配置对应的压缩模式参数。
本实施例中的载频的个数可以为一个， 还可以为多个。 前者为单载频系 统， 后者为多载频系统。 本实施例中的压缩模式参数是与 UE的建立有载频 的射频通道所对应的， 其中的载频与 UE的射频通道的映射关系可以表明与 载频与 UE的已用射频通道的对应关系， 通过上述映射关系可以获知一个载 频是建立在 UE的哪一个射频通道上的。 表一为多载频系统中载频与 UE的 射频通道的映射关系表， 如表一所示：
表一 多载频系统中载频与 UE的射频通道的映射关系表
Figure imgf000006_0001
本实施例中的获取载频与 UE的射频通道的映射关系可以是 RNC从 UE 获取的， 还可以是 RNC根据从 UE获取的 UE的射频能力信息所确定的。 本 实施例中， 如果是 RNC确定的载频与 UE的射频通道的映射关系， 则 RNC 还需要将上述载频与 UE的射频通道的映射关系发送给 UE,总之本实施例中 需要 UE和 RNC均可以获取到载频与 UE的射频通道的映射关系， 以供 UE 将载频建立在对应的射频通道上。
对于单载频系统， UE通过一个载频进行数据的接收和发送。 RNC可以 才艮据所获取的载频与 UE的射频通道的映射关系， 为 UE的建立有该载频的 射频通道或该射频通道上的载频配置对应的压缩模式参数， 以供进行异频或 异系统的测量。 RNC还可以进一步根据获取的 UE发送的 UE的射频能力信 息确定是否为该载频对应的射频通道或该射频通道上的载频配置对应的压缩 模式参数， 其中， UE的射频能力信息可以包括 UE的射频通道的个数、 每个 射频通道的带宽等射频信息。 例如： 根据 UE 的射频通道的个数， 获知 UE 还存在未建立载频的射频通道（空闲射频信道）， 则可以不配置压模参数， 不 启动压缩模式进行异频或异系统的测量；才艮据该载频对应的射频通道的带宽， 当该射频通道的带宽大于对应的当前工作载频与待测量载频之间的频率差值 时， 则可以不配置压模参数， 不启动压缩模式进行异频或异系统的测量。
对于多载频系统， UE可以同时接收和发送多个载频上数据信道的数据。 与上述单载频系统类似， RNC可以根据所获取的载频与 UE的射频通道的映 射关系， 为 UE的建立有上述多个载频的射频通道或上述射频通道上的载频 配置对应的压缩模式参数， 以供进行异频或异系统的测量。 RNC还可以进一 步根据获取的 UE发送的 UE的射频能力信息确定是否为上述载频对应的射 频通道配置对应的压缩模式参数， 其中， UE的射频能力信息可以包括 UE的 射频通道的个数、 每个射频通道的带宽等射频信息。 例如： 根据 UE的射频 通道的个数， 获知 UE还存在未建立载频的射频通道（空闲射频信道）， 则可 以不配置压模参数， 不启动压缩模式进行异频或异系统的测量； 根据上述载 频对应的射频通道的带宽， 当有一个载频对应的射频通道的带宽大于对应的 当前工作载频与待测量载频之间的频率差值时， 则可以不配置压模参数， 不 启动压缩模式进行异频或异系统的测量。 本实施例的压缩模式参数的配置方法对于多载频系统来说， RNC可以根 据所获取的载频与 UE的射频通道的映射关系， 配置利用压缩模式进行异频 或异系统的测量所需要的压缩模式参数。 本实施例中， 不需要为系统的全部 载频所对应的无线链路都配置统一的压缩模式参数， 从而不需要在 UE的承 载全部载频所对应的无线链路的射频通道上都启动压缩模式进行异频或异系 统的测量， 只需要为系统选定的建立有载频的射频通道或该射频通道上的载 频配置不同的压缩模式参数， 在配置有压缩模式参数的射频通道或配置有压 缩模式参数的载频对应的射频通道上启动压缩模式进行异频或异系统的测 量， 从而节省了 UE的射频通道的资源， 避免了 UE的射频通道资源的浪费， 提高了多载频系统的接收和发送性能。
本发明实施例中， 根据载频与 UE的射频通道的映射关系， 对于单载频 系统或系统的全部载频建立 UE的一个射频通道上的多载频系统， 为单载频 系统中的工作载频对应的射频通道、 或者为多载频系统中的全部载频都对应 的那个射频通道或该射频通道上的全部载频配置的压缩模式参数都是与 UE 的一个射频通道对应的， 本实施例只能为该射频通道配置对应的压缩模式参 数， 没有其他的配置方法； 对于系统的载频建立 UE的至少两个射频通道上 的多载频系统， 可以有艮多种配置压缩模式参数的方法， 下面将通过具体实 施例进行详细说明。
图 2为本发明实施例二提供的压缩模式参数的配置方法的流程示意图， 如图 2所示， 本实施例的压缩模式参数的配置方法可以包括以下步骤：
步骤 201、 RNC获取载频与 UE的射频通道的映射关系， 上述载频建立 在 UE的至少两个射频通道上；
步骤 202、 RNC根据上述载频与 UE的射频通道的映射关系， 为其中的 一个建立有载频的射频通道配置压缩模式参数；
步骤 203、 RNC根据预先配置的载频与无线链路的映射关系和上述载频 与 UE的射频通道的映射关系， 获取射频通道与无线链路的映射关系；
步骤 204、 RNC向 NodeB发送上述射频通道与无线链路的映射关系； 步骤 205、 RNC分别向 UE和 NodeB发送上述压缩模式参数与上述射 频通道的映射关系， 以供 UE在配置有压缩模式参数的射频通道上和 NodeB 根据射频通道与无线链路的映射关系在配置有压缩模式参数的射频通道所承 载的无线链路上启动压缩模式， 利用上述压缩模式参数进行异频或异系统的 测量。
本实施例中， RNC可以通过向 UE发送异频或异系统测量控制命令， 以 指示 UE进行异频或异系统的测量。 当 UE中的一个建立有载频的射频通道 配置了压缩模式参数时， UE可以根据该测量控制命令对当前工作载频的信号 质量进行检测， 当检测到当前工作载频的信号质量小于一个门限阈值时， 向 RNC上报 2D事件， RNC接收到 2D事件之后 ,可以向 UE和 NodeB发 RNC 分别向 UE和 NodeB发送上述压缩模式参数与上述射频通道的映射关系， 以 供 UE在配置有压缩模式参数的射频通道上和 NodeB根据射频通道与无线链 路的映射关系在配置有压缩模式参数的射频通道所承载的无线链路上启动压 缩模式， 利用上述压缩模式参数进行异频或异系统的测量发送启动压缩模式 命令， 以指示 UE和 NodeB启动压缩模式进行异频或异系统的测量。 其中的 2D事件与现有的技术方案中的定义是一致的， 此处不再赘述。
本实施例中， UE接收到压模启动命令之后，在对应的那个射频通道上根 据所配置的压缩模式参数进行数据的接收和发送， 以进行异频或异系统的测 量； NodeB接收到压模启动命令之后， 在那个射频通道所承载的无线链路上 根据所配置的压缩模式参数进行数据的接收和发送， 从而节省了 UE的射频 通道的资源， 避免了 UE的射频通道资源的浪费， 提高了多载频系统的接收 和发送性能。
需要说明的是： 由于压缩模式参数是与 UE的射频通道相对应的， 所以 对于不同测量目的， 例如： 时分双工（Time Division Duplex, 简称 TDD )测 量 ( TDD measurement ),频分双工( Frequency Division Duplex,简称 FDD ) 测量（ FDD measurement ), GSM载频接收信号场强指示（ Receiving Signal Strength Indicator, 简称 RSSI ) 则量 ( GSM carrier RSSI measurement ), GSM初始基站识别码（ Base Station Identification Code, 简称 BSIC )确认 ( GSM Initial BSIC identification ) , GSM BSIC 重确认 （ GSM BSIC re-confirmation )、 多载频测量 ( Multi-carrier measurement )等, 其对应的 压缩模式参数可以是针对 UE不同的射频通道来单独配置， 即可以重复执行 本实施例提供的压缩模式参数的配置方法， 在每个射频通道进行不同测量目 的的异频或异系统的测量，可以避免在多载频系统时， UE的一个射频通道的 测量任务过重， 影响到该射频通道对应的载频上数据信道的数据的接收和发 送。
图 3为本发明实施例三提供的压缩模式参数的配置方法的流程示意图， 如图 3所示， 本实施例的压缩模式参数的配置方法可以包括以下步骤：
步骤 301、 RNC获取载频与 UE的射频通道的映射关系， 上述载频建立 在 UE的至少两个射频通道上；
步骤 302、 RNC根据上述载频与 UE的射频通道的映射关系， 为其中的 至少两个建立有载频的射频通道配置压缩模式参数， 以使上述射频通道的传 输间隙相互错开；
步骤 303、 RNC根据预先配置的载频与无线链路的映射关系和上述载频 与 UE的射频通道的映射关系， 获取射频通道与无线链路的映射关系；
步骤 304、 RNC向 NodeB发送上述射频通道与无线链路的映射关系； 步骤 305、 RNC分别向 UE和 NodeB发送上述压缩模式参数与上述射 频通道的映射关系， 以供 UE在配置有压缩模式参数的射频通道上和 NodeB 根据射频通道与无线链路的映射关系在配置有压缩模式参数的射频通道所承 载的无线链路上启动压缩模式， 利用上述压缩模式参数进行异频或异系统的 测量。
本实施例中， RNC可以通过向 UE发送异频或异系统测量控制命令， 以 指示 UE进行异频或异系统的测量。 当 UE中的至少两个建立有载频的射频 通道配置了压缩模式参数时， UE可以根据该测量控制命令对当前工作载频的 信号质量进行检测， 当检测到当前工作载频的信号质量小于一个门限阈值时， 向 RNC上报 2D事件， RNC接收到 2D事件之后， 可以向 UE和 NodeB发 送启动压缩模式命令， 以指示 UE和 NodeB启动压缩模式进行异频或异系统 的测量。 其中的 2D 事件与现有的技术方案中的定义是一致的， 此处不再赘 述。
本实施例中， U E接收到压模启动命令之后，在对应的至少两个射频通道 上根据所配置的压缩模式参数进行数据的接收和发送， 以进行异频或异系统 的测量； NodeB接收到压模启动命令之后， 在上述至少两个射频通道所承载 的无线链路上根据所配置的压缩模式参数进行数据的接收和发送， 由于上述 至少两个配置有压缩模式参数的射频通道的传输间隙是相互错开的， 提高了 检测到异频或异系统信号的速度， 减小了对多载频系统中单个射频通道的接 收和发送性能的影响。
图 4为本发明实施例四提供的压缩模式参数的配置方法的流程示意图， 本实施例的方法是针对于双载频系统的， 其中， 信号质量好的那个载频称为 UE的主载频， 另一个载频称为 UE的辅载频。 如图 4所示， 本实施例的压缩 模式参数的配置方法可以包括以下步骤：
步骤 401、 RNC获取载频与 UE的射频通道的映射关系， 上述载频包括 一个主载频和一个辅载频， 主载频和辅载频分别建立在 UE的两个射频通道 上；
步骤 402、 RNC根据上述载频与 UE的射频通道的映射关系， 为建立有 辅载频的射频通道配置压缩模式参数；
步骤 403、 RNC根据预先配置的载频与无线链路的映射关系和上述载频 与 UE的射频通道的映射关系， 获取射频通道与无线链路的映射关系；
步骤 404、 RNC向 NodeB发送上述射频通道与无线链路的映射关系； 步骤 405、 RNC分别向 UE和 NodeB发送上述压缩模式参数与建立有 辅载频的射频通道的映射关系， 以供 UE在配置有压缩模式参数的射频通道 上和 NodeB根据射频通道与无线链路的映射关系在配置有压缩模式参数的 射频通道所承载的无线链路上启动压缩模式， 利用配置的模式参数进行异频 或异系统的测量。
本实施例从一种算法优化的角度， 为辅载频对应的射频通道配置压缩模 式参数， 在建立有辅载频的射频通道上启动压缩模式进行测量， 而在建立有 主载频的射频通道上进行正常的数据收发业务。 原因如下：
在双载频 （小区） 系统中辅载频对应小区的高速下行分组接入（High Speed Downlink Packet Access, 简称 HSDPA )数据的正确接收与否是通过 主载频对应小区的上行反馈信道即高速专用物理控制信道 （ High Speed Dedicated Physical Control Channel, 简称 HS-DPCCH )进行上行反馈的， 而辅载频对应小区则没有上行反馈信道。 若在 UE的建立有主载频的射频通 道上启动压缩模式， 则不仅仅是影响主载上数据信道的数据的接收和发送， 还会影响到辅载频上数据信道的数据的接收和发送， 因此， 可以选择在建立 有辅载频的射频通道上启动压缩模式， 在该射频通道上根据压缩模式参数进 行数据的接收和发送， 以进行异频或异系统的测量。
需要说明的是： 在其他多载频 （载频的个数大于 2 ) 系统中， 同样可以 利用本实施例的思想， 可以在任意一个或几个 UE的建立有辅载频的射频通 道上启动压缩模式进行异频或异系统的测量。
上述本发明实施例二、 本发明实施例三和本发明实施例四中， 压缩模式 参数是针对 UE的射频通道进行配置的， 与 UE的射频通道对应。 本发明实 施例中的压缩模式参数还可以针对 UE的射频通道上的载频进行配置，与 UE 的射频通道上的载频对应。 下面分别通过与上述本发明实施例二、 本发明实 施例三和本发明实施例四对应的实施例进行说明。
图 5为本发明实施例五提供的压缩模式参数的配置方法的流程示意图， 如图 5所示， 本实施例的压缩模式参数的配置方法可以包括以下步骤：
步骤 501、 RNC获取载频与 UE的射频通道的映射关系， 上述载频建立 在 UE的至少两个射频通道上；
步骤 502、 RNC根据上述载频与 UE的射频通道的映射关系， 为其中的 一个建立有载频的射频通道上的载频配置压缩模式参数；
步骤 503、 RNC分别向 UE和 NodeB发送上述压缩模式参数与上述载 频的映射关系， 以供 UE在配置有压缩模式参数的载频所对应的射频通道上 和 NodeB 根据载频与无线链路的映射关系在配置有压缩模式参数的载频所 对应的无线链路上启动压缩模式， 利用上述载频对应的压缩模式参数进行异 频或异系统的测量。
本实施例中， RNC可以通过向 UE发送异频或异系统测量控制命令， 以 指示 UE进行异频或异系统的测量。 当 UE中的一个建立有载频的射频通道 上的载频配置了压缩模式参数时， UE可以根据该测量控制命令对当前工作载 频的信号质量进行检测， 当检测到当前工作载频的信号质量小于一个门限阈 值时，向 RNC上报 2D事件， RNC接收到 2D事件之后，可以向 UE和 NodeB 发 RNC分别向 UE和 NodeB发送上述压缩模式参数与上述载频的映射关系， 以供 UE在配置有压缩模式参数的载频所对应的射频通道上和 NodeB根据载 频与无线链路的映射关系在配置有压缩模式参数的载频所对应的无线链路上 启动压缩模式， 利用上述压缩模式参数进行异频或异系统的测量发送启动压 缩模式命令， 以指示 UE和 NodeB启动压缩模式进行异频或异系统的测量。 其中的 2D事件与现有的技术方案中的定义是一致的， 此处不再赘述。
本实施例中， UE接收到压模启动命令之后，在对应的载频所在的那个射 频通道上根据所配置的压缩模式参数进行数据的接收和发送， 以进行异频或 异系统的测量； NodeB接收到压模启动命令之后， 在对应的载频所对应的无 线链路上根据所配置的压缩模式参数进行数据的接收和发送，从而节省了 UE 的射频通道的资源， 避免了 UE的射频通道资源的浪费， 提高了多载频系统 的接收和发送性能。
同样需要说明的是： 由于压缩模式参数是与 UE的射频通道相对应的， 所以对于不同测量目的，例如： TDD测量、 FDD测量、 RSSI测量、 GSM BSIC 确认、 GSM BSIC重确认、 多载频测量等， 其对应的压缩模式参数可以是针 对 UE不同的射频通道上的载频来单独配置， 即可以重复执行本实施例提供 的压缩模式参数的配置方法， 在每个射频通道上进行不同测量目的的异频或 异系统的测量，可以避免在多载频系统时， UE的一个射频通道的测量任务过 重， 影响到该射频通道对应的载频上数据信道的数据的接收和发送。
图 6为本发明实施例六提供的压缩模式参数的配置方法的流程示意图， 如图 6所示， 本实施例的压缩模式参数的配置方法可以包括以下步骤：
步骤 601、 RNC获取载频与 UE的射频通道的映射关系， 上述载频建立 在 UE的至少两个射频通道上；
步骤 602、 RNC根据上述载频与 UE的射频通道的映射关系， 为其中的 至少两个建立有载频的射频通道上的载频配置压缩模式参数， 以使上述射频 通道的传输间隙相互错开；
步骤 603、 RNC分别向 UE和 NodeB发送上述压缩模式参数与上述载 频的映射关系， 以供 UE在配置有压缩模式参数的载频所对应的射频通道上 和 NodeB 根据载频与无线链路的映射关系在配置有压缩模式参数的载频所 对应的无线链路上启动压缩模式， 利用上述压缩模式参数进行异频或异系统 的测量。
本实施例中， RNC可以通过向 UE发送异频或异系统测量控制命令， 以 指示 UE进行异频或异系统的测量。 当 UE中的至少两个建立有载频的射频 通道上的载频配置了压缩模式参数时， UE可以根据该测量控制命令对当前工 作载频的信号质量进行检测， 当检测到当前工作载频的信号质量小于一个门 限阈值时， 向 RNC上报 2D事件， RNC接收到 2D事件之后， 可以向 UE和 NodeB发送启动压缩模式命令， 以指示 UE和 NodeB启动压缩模式进行异 频或异系统的测量。 其中的 2D 事件与现有的技术方案中的定义是一致的， 此处不再赘述。
本实施例中， UE接收到压模启动命令之后，在对应的载频所在的至少两 个射频通道上根据所配置的压缩模式参数进行数据的接收和发送， 以进行异 频或异系统的测量； NodeB接收到压模启动命令之后， 在对应的载频所对应 的无线链路上根据所配置的压缩模式参数进行数据的接收和发送， 由于上述 配置有压缩模式参数的载频所对应的至少两个射频通道的传输间隙是相互错 开的， 提高了检测到异频或异系统信号的速度， 减小了对多载频系统中单个 射频通道的接收和发送性能的影响。
图 7为本发明实施例七提供的压缩模式参数的配置方法的流程示意图， 本实施例的方法是针对于双载频系统的， 其中， 信号质量好的那个载频称为 UE的主载频， 另一个载频称为 UE的辅载频。 如图 7所示， 本实施例的压缩 模式参数的配置方法可以包括以下步骤：
步骤 701、 RNC获取载频与 UE的射频通道的映射关系， 上述载频包括 一个主载频和一个辅载频， 主载频和辅载频分别建立在 UE的两个射频通道 上；
步骤 702、 RNC根据上述载频与 UE的射频通道的映射关系， 为辅载频 配置压缩模式参数；
步骤 703、 RNC分别向 UE和 NodeB发送上述压缩模式参数与上述辅 载频的映射关系， 以供 UE在配置有压缩模式参数的辅载频所对应的射频通 道上和 NodeB根据载频与无线链路的映射关系在配置有压缩模式参数的辅 载频的所对应的无线链路上启动压缩模式， 利用配置的模式参数进行异频或 异系统的测量。
本实施例从一种算法优化的角度， 为辅载频配置压缩模式参数， 在建立 有辅载频的射频通道上启动压缩模式进行测量， 而在建立有主载频的射频通 道上进行正常的数据收发业务。 原因与本发明实施例四中所述的原因一致， 此处不再赘述。
进一步需要说明的是： 在其他多载频 （载频的个数大于 2 ) 系统中， 同 样可以利用本实施例的思想， 可以在任意一个或几个 UE的建立有辅载频的 射频通道上启动压缩模式进行异频或异系统的测量。
图 8为本发明实施例八提供的一种测量方法的流程示意图， 如图 8所示， 本实施例的测量方法可以包括以下步骤：
步骤 801、 UE获取 RNC根据载频与 UE的射频通道的映射关系为至少 一个建立有载频的射频通道或该射频通道上的载频配置的对应的压缩模式参 数；
步骤 802、 UE在对应有压缩模式参数的射频通道上启动压缩模式， 利用 上述压缩模式参数进行异频或异系统的测量。
本实施例中 UE所获取的压缩模式参数可以通过 RNC发送的压缩模式参 数与射频通道的映射关系获取，还可以通过 RNC发送的压缩模式参数与载频 的映射关系获取。
本实施例中， RNC具体如何配置压缩模式参数的方法可以参见上述本发 明实施例二、 三、 四、 五、 六和七所提供的压缩模式参数的配置方法。
本实施例中， UE通过获取到 RNC根据所获取的载频与 UE的射频通道 的映射关系为至少一个建立有载频的射频通道或该射频通道上的载频所配置 的压缩模式参数， 从而不需要在 UE的承载全部载频所对应的无线链路的射 频通道上都启动压缩模式进行异频或异系统的测量， 只需要在配置有压缩模 式参数的射频通道或配置有压缩模式参数的载频对应的射频通道上启动压缩 模式进行异频或异系统的测量， 从而节省了 UE的射频通道的资源， 避免了 UE的射频通道资源的浪费， 提高了多载频系统的接收和发送性能。
图 9为本发明实施例九提供的另一种测量方法的流程示意图，如图 9所示， 本实施例的测量方法可以包括以下步骤：
步骤 901、 NodeB获取 RNC根据载频与 UE的射频通道的映射关系为至 少一个建立有载频的射频通道或该射频通道上的载频配置的对应的压缩模式 参数；
步骤 902、 NodeB在对应有压缩模式参数的无线链路上启动压缩模式， 利用上述压缩模式参数进行异频或异系统的测量。
本实施例中 NodeB所获取的压缩模式参数可以通过 RNC发送的压缩模 式参数与射频通道的映射关系、 RNC发送的根据载频与无线链路的映射关系 和载频与 UE的射频通道的映射关系获取的射频通道与无线链路的映射关系 获取，还可以通过 RNC发送的压缩模式参数与载频的映射关系、载频与无线 链路的映射关系获取。
本实施例中， RNC具体如何配置压缩模式参数的方法可以参见上述本发 明实施例二、 三、 四、 五、 六和七所提供的压缩模式参数的配置方法。
本实施例中， NodeB通过获取到 RNC根据所获取的载频与 UE的射频 通道的映射关系为至少一个建立有载频的射频通道或该射频通道上的载频所 配置的压缩模式参数， 从而不需要在全部已用射频通道所承载的无线链路上 都启动压缩模式进行异频或异系统的测量， 只需要在配置有压缩模式参数的 射频通道所承载的无线链路或配置有压缩模式参数的载频所对应的无线链路 上启动压缩模式进行异频或异系统的测量， 从而节省了 UE的射频通道的资 源， 避免了 UE的射频通道资源的浪费， 提高了多载频系统的接收和发送性 能。
需要说明的是： 对于前述的各方法实施例， 为了简单描述， 故将其都表 述为一系列的动作组合， 但是本领域技术人员应该知悉， 本发明并不受所描 述的动作顺序的限制， 因为依据本发明， 某些步骤可以釆用其他顺序或者同 时进行。 其次， 本领域技术人员也应该知悉， 说明书中所描述的实施例均属 于优选实施例， 所涉及的动作和模块并不一定是本发明所必须的。
在上述实施例中， 对各个实施例的描述都各有侧重， 某个实施例中没有 详述的部分， 可以参见其他实施例的相关描述。
图 10为本发明实施例十提供的无线网络控制器的结构示意图， 如图 10所 示， 本实施例的 RNC可以包括第一获取模块 1001和配置模块 1002。 其中， 第一获取模块 1001获取载频与终端的射频通道的映射关系， 配置模块 1002 根据第一获取模块 1001 所获取的载频与终端的射频通道的映射关系， 为至 少一个建立有载频的射频通道或该射频通道上的载频配置对应的压缩模式参 数。
上述本发明实施例一的方法、 本发明实施例二中 RNC、 本发明实施例三 中 RNC和本发明实施例四中 RNC、 本发明实施例五中 RNC、 本发明实施例 六中 RNC和本发明实施例七中 RNC的功能均可以由本实施例提供的 RNC 实现。
本实施例通过第一获取模块获取载频与 UE的射频通道的映射关系， 使 得配置模块能够根据第一获取模块所获取的载频与 UE的射频通道的映射关 系， 为 UE的射频通道配置利用压缩模式进行异频或异系统的测量所需要的 压缩模式参数。 本实施例中， 配置模块不需要为系统的全部载频所对应的无 线链路都配置统一的压缩模式参数， 从而不需要在 UE的承载全部载频所对 应的无线链路的射频通道上都启动压缩模式进行异频或异系统的测量， 只需 要为系统选定的建立有载频的射频通道或该射频通道上的载频配置不同的压 缩模式参数， 以供 UE在配置有压缩模式参数的射频通道或配置有压缩模式 参数的载频对应的射频通道上启动压缩模式进行异频或异系统的测量， 从而 节省了 UE的射频通道的资源， 避免了 UE的射频通道资源的浪费， 提高了 多载频系统的接收和发送性能。
图 11为本发明实施例十一提供的无线网络控制器的结构示意图， 如图 11 所示， 与本发明实施例十相比， 本实施例中的第一获取模块 1001可以包括第 一获取单元 1101 , 用于从终端获取载频与终端的射频通道的映射关系。
图 12为本发明实施例十二提供的无线网络控制器的结构示意图， 如图 12 所示， 与本发明实施例十相比， 本实施例中的第一获取模块 1001可以包括第 二获取单元 1201和第一确定单元 1202。 其中， 第二获取单元 1201从终端 获取的终端的射频能力信息，第一确定单元 1202根据第二获取单元 1201所 获取的终端的射频能力信息确定载频与终端的射频通道的映射关系。
图 13为本发明实施例十三提供的无线网络控制器的结构示意图， 如图 13 所示， 与本发明实施例十相比， 本实施例中的配置模块 1002可以包括第一配 置单元 1301、 第二配置单元 1302和第三配置单元 1303。 其中， 当载频建立 在 UE的至少两个射频通道上时，第一配置单元 1301具体可以根据第一获取 模块 1001所获取的载频与 UE的射频通道的映射关系，为一个建立有载频的 射频通道配置压缩模式参数； 当载频建立在 UE的至少两个射频通道上时， 第二配置单元 1302具体可以根据第一获取模块 1001所获取的载频与 UE的 射频通道的映射关系， 分别为至少两个建立有载频的射频通道配置不同的压 缩模式参数， 以使上述射频通道的传输间隙相互错开； 当载频包括一个主载 频和至少一个辅载频， 且主载频和上述至少一个辅载频建立在 UE的不同射 频通道上时，第三配置单元 1303具体可以根据第一获取模块 1001所获取的 载频与 UE的射频通道的映射关系， 为建立有至少一个辅载频的射频通道配 置压缩模式参数。
进一步地， 本实施例的 RNC还可以进一步包括第一发送模块 1304, 用 于向 UE发送第一配置单元 1301、第二配置单元 1302或第三配置单元 1303 所配置的上述压缩模式参数与上述射频通道的映射关系， 以供 UE在配置有 压缩模式参数的射频通道上启动压缩模式， 利用上述压缩模式参数进行异频 或异系统的测量。
进一步地， 本实施例中的配置模块 1002即第一配置单元 1301、 第二配 置单元 1302或第三配置单元 1303所配置的压缩模式参数， 不仅要下发给 UE, 同时还要下发给相应的 NodeB, 以使得 UE和 NodeB同时利用该压缩 模式参数进行数据的接收和发送。 具体地， 本实施例的 RNC还可以进一步包 括确定模块 1305和第二发送模块 1306。 其中确定模块 1305根据载频与无 线链路的映射关系和第一获取模块 1001 所获取的载频与终端的射频通道的 映射关系， 确定射频通道与无线链路的映射关系， 第二发送模块 1306 向 NodeB发送上述压缩模式参数与上述射频通道的映射关系和确定模块 1305 所确定的上述射频通道与无线链路的映射关系，以供 NodeB在配置有压缩模 式参数的射频通道所承载的无线链路上启动压缩模式， 利用上述射频通道对 应的压缩模式参数进行异频或异系统的测量。
上述本发明实施例十三中的配置模块 1002即第一配置单元 1301、 第二 配置单元 1302或第三配置单元 1303所配置的压缩模式参数是针对 UE的射 频通道进行的，该压缩模式参数与 UE的射频通道对应。 配置模块 1002还可 以针对 UE的射频通道上的载频进行配置压缩模式参数， 该压缩模式参数与 UE的射频通道上的载频对应。图 14为本发明实施例十四提供的无线网络控制 器的结构示意图， 如图 14所示， 与本发明实施例十相比， 本实施例中的配置模 块 1002可以包括第四配置单元 1401、 第五配置单元 1402和第六配置单元 1403。其中，当载频建立在 UE的至少两个射频通道上时，第四配置单元 1401 具体可以根据第一获取模块 1001 所获取的载频与 UE的射频通道的映射关 系， 为一个建立有载频的射频通道上的载频配置压缩模式参数； 当载频建立 在 UE的至少两个射频通道上时，第五配置单元 1402具体可以根据第一获取 模块 1001所获取的载频与 UE的射频通道的映射关系，分别为至少两个建立 有载频的射频通道上的载频配置不同的压缩模式参数， 以使上述射频通道的 传输间隙相互错开； 当载频包括一个主载频和至少一个辅载频， 且主载频和 上述至少一个辅载频建立在 UE的不同射频通道上时，第六配置单元 1403具 体可以根据第一获取模块 1001所获取的载频与 UE的射频通道的映射关系， 为建立有至少一个辅载频的射频通道上的辅载频配置压缩模式参数。
进一步地， 本实施例的 RNC还可以进一步包括第三发送模块 1404, 用 于向 UE发送第四配置单元 1401、第五配置单元 1402或第六配置单元 1403 所配置的上述压缩模式参数与上述载频的映射关系， 以供 UE在配置有压缩 模式参数的载频所对应的射频通道上启动压缩模式， 利用上述压缩模式参数 进行异频或异系统的测量。
进一步地， 本实施例中的配置模块 1002即第四配置单元 1401、 第五配 置单元 1402和第六配置单元 1403所配置的压缩模式参数， 不仅要下发给 UE, 同时还要下发给相应的 NodeB, 以使得 UE和 NodeB同时利用该压缩 模式参数进行数据的接收和发送。 具体地， 本实施例的 RNC还可以进一步包 括第四发送模块 1405,用于向 NodeB发送上述压缩模式参数与上述载频（或 辅载频）的映射关系， 以供 NodeB根据载频与无线链路的映射关系在配置有 压缩模式参数的载频 （或辅载频） 所对应的无线链路上启动压缩模式， 利用 上述载频（或辅载频）对应的压缩模式参数进行异频或异系统的测量。 图 15为本发明实施例十五提供的终端的结构示意图， 如图 15所示， 本实 施例的 UE可以包括第二获取模块 1501和第一测量模块 1502。 其中， 第二 获取模块 1501获取 RNC根据载频与 UE的射频通道的映射关系为至少一个 建立有载频的射频通道或该射频通道上的载频配置的对应的压缩模式参数， 第一测量模块 1502在对应有第二获取模块 1501所获取的压缩模式参数的射 频通道上启动压缩模式， 利用上述压缩模式参数进行异频或异系统的测量。
上述本发明实施例八中 UE的功能可以由本实施例提供的 UE实现。 本实施例中，通过第二获取模块获取到 RNC根据所获取的载频与 UE的 射频通道的映射关系为至少一个建立有载频的射频通道或该射频通道上的载 频所配置的压缩模式参数， 从而不需要在 UE的承载全部载频所对应的无线 链路的射频通道上都启动压缩模式进行异频或异系统的测量。 第一测量模块 只需要在配置有压缩模式参数的射频通道或配置有压缩模式参数的载频对应 的射频通道上启动压缩模式进行异频或异系统的测量， 从而节省了 UE的射 频通道的资源， 避免了 UE的射频通道资源的浪费， 提高了多载频系统的接 收和发送性能。
图 16为本发明实施例十六提供的基站的结构示意图， 如图 16所示， 本实 施例的 NodeB可以包括第三获取模块 1601和第二测量模块 1602。 其中， 第 三获取模块 1601获取 RNC根据载频与 UE的射频通道的映射关系为至少一 个建立有载频的射频通道或该射频通道上的载频配置的对应的压缩模式参 数， 第二测量模块 1602在对应有压缩模式参数的无线链路上启动压缩模式， 利用上述压缩模式参数进行异频或异系统的测量。
上述本发明实施例九中 NodeB的功能可以由本实施例提供的 NodeB实 现。
本实施例中，通过第三获取模块获取到 RNC根据所获取的载频与 UE的 射频通道的映射关系为至少一个建立有载频的射频通道或该射频通道上的载 频所配置的压缩模式参数， 从而不需要在全部已用射频通道所承载的无线链 路上都启动压缩模式进行异频或异系统的测量。 第二测量模块只需要在配置 有压缩模式参数的射频通道所承载的无线链路或配置有压缩模式参数的载频 对应的无线链路上启动压缩模式进行异频或异系统的测量， 从而节省了 UE 的射频通道的资源， 避免了 UE的射频通道资源的浪费， 提高了多载频系统 的接收和发送性能。
图 17为本发明实施例十七提供的基站的结构示意图， 如图 17所示， 与本 发明实施例十六相比， 本实施例中的第三获取模块 1601还可以进一步包括第 三获取单元 1701和第二确定单元 1702。其中，第三获取单元 1701获取 RNC 发送的所述压缩模式参数与所述射频通道的映射关系、 载频与无线链路的映 射关系和所述载频与 UE的射频通道的映射关系，第二确定单元 1702根据第 三获取单元 1701 所获取的映射关系确定所述压缩模式参数与无线链路的映 射关系。
本实施例中，第二确定单元所确定的压缩模式参数是 RNC针对 UE的射 频通道进行配置的， 该压缩模式参数与 UE的射频通道对应。
图 18为本发明实施例十八提供的基站的结构示意图， 如图 18所示， 与本 发明实施例十六相比， 本实施例中的第三获取模块 1601还可以进一步包括第 四获取单元 1801和第三确定单元 1802。 其中， 第四获取单元 1801获取所 述无线网络控制器发送的所述压缩模式参数与所述载频的映射关系和载频与 无线链路的映射关系，第三确定单元 1802根据第四获取单元 1801所获取的 映射关系确定获取所述压缩模式参数与无线链路的映射关系。
本实施例中，第三确定单元所确定的压缩模式参数是 RNC针对 UE的射 频通道上的载频进行配置的， 该压缩模式参数与 UE的射频通道上的载频对 应。
图 19为本发明实施例十九提供的测量系统的结构示意图， 如图 19所示， 本实施例的测量系统可以包括无线网络控制器 1901 , 用于获取载频与 UE的 射频通道的映射关系， 根据所获取的载频与终端的射频通道的映射关系， 为 至少一个建立有载频的射频通道或上述射频通道上的载频配置对应的压缩模 式参数， 以供 UE和 NodeB在上述至少一个射频通道上进行异频或异系统的 测量。
上述本发明实施例一的方法、 本发明实施例二中 RNC、 本发明实施例三 中 RNC和本发明实施例四中 RNC、 本发明实施例五中 RNC、 本发明实施例 六中 RNC和本发明实施例七中 RNC的功能均可以由本实施例提供的测量系 统中的无线网络控制器 1901实现。
本领域普通技术人员可以理解： 实现上述方法实施例的全部或部分步骤 可以通过程序指令相关的硬件来完成， 前述的程序可以存储于一计算机可读 取存储介质中， 该程序在执行时， 执行包括上述方法实施例的步骤； 而前述 的存储介质包括： ROM、 RAM, 磁碟或者光盘等各种可以存储程序代码的介 质。
最后应说明的是： 以上实施例仅用以说明本发明的技术方案， 而非对其 限制； 尽管参照前述实施例对本发明进行了详细的说明， 本领域的普通技术 人员应当理解： 其依然可以对前述各实施例所记载的技术方案进行修改， 或 者对其中部分技术特征进行等同替换； 而这些修改或者替换， 并不使相应技 术方案的本质脱离本发明各实施例技术方案的精神和范围。

Claims

权 利 要求
1、 一种压缩模式参数的配置方法， 其特征在于， 包括：
获取载频与终端的射频通道的映射关系；
根据所述载频与终端的射频通道的映射关系， 为至少一个建立有载频的 射频通道或所述射频通道上的载频配置对应的压缩模式参数。
2、根据权利要求 1所述的方法， 其特征在于， 所述获取载频与终端的射 频通道的映射关系包括：
从终端获取载频与终端的射频通道的映射关系； 或者
根据从终端获取的终端的射频能力信息确定载频与射频通道的映射关 系。
3、根据权利要求 1所述的方法， 其特征在于， 当载频建立在终端的至少 两个射频通道上时， 所述为至少一个建立有载频的射频通道配置对应的压缩 模式参数包括：
为一个建立有载频的射频通道配置压缩模式参数；
向终端发送所述压缩模式参数与所述射频通道的映射关系， 以供所述终 端在配置有压缩模式参数的射频通道上启动压缩模式， 利用所述压缩模式参 数进行异频或异系统的测量。
4、根据权利要求 1所述的方法， 其特征在于， 当载频建立在终端的至少 两个射频通道上时， 所述为至少一个建立有载频的射频通道配置对应的压缩 模式参数包括：
分别为至少两个建立有载频的射频通道配置不同的压缩模式参数， 以使 所述射频通道的传输间隙相互错开；
向终端发送所述压缩模式参数与所述射频通道的映射关系， 以供所述终 端在配置有压缩模式参数的射频通道上启动压缩模式， 利用所述射频通道对 应的压缩模式参数进行异频或异系统的测量。
5、根据权利要求 1所述的方法， 其特征在于， 所述载频包括一个主载频 和至少一个辅载频， 当所述主载频与所述至少一个辅载频建立在终端的不同 射频通道上时， 所述为至少一个建立有载频的射频通道配置对应的压缩模式 参数包括： 为建立有至少一个辅载频的射频通道配置压缩模式参数；
向终端发送所述压缩模式参数与所述射频通道的映射关系， 以供所述终 端在配置有压缩模式参数的射频通道上启动压缩模式， 利用所述压缩模式参 数进行异频或异系统的测量。
6、 根据权利要求 3、 4或 5所述的方法， 其特征在于， 还包括： 根据载频与无线链路的映射关系和所述载频与终端的射频通道的映射关 系， 获取射频通道与无线链路的映射关系；
向基站发送所述压缩模式参数与所述射频通道的映射关系和所述射频通 道与无线链路的映射关系， 以供所述基站在配置有压缩模式参数的射频通道 所承载的无线链路上启动压缩模式， 利用所述射频通道对应的压缩模式参数 进行异频或异系统的测量。
7、根据权利要求 1所述的方法， 其特征在于， 当载频建立在终端的至少 两个射频通道上时， 所述为至少一个建立有载频的射频通道上的载频配置对 应的压缩模式参数包括：
为一个建立有载频的射频通道上的载频配置压缩模式参数；
向终端发送所述压缩模式参数与所述载频的映射关系， 以供所述终端在 配置有压缩模式参数的载频所对应的射频通道上启动压缩模式， 利用所述压 缩模式参数进行异频或异系统的测量。
8、根据权利要求 1所述的方法， 其特征在于， 当载频建立在终端的至少 两个射频通道上时， 所述为至少一个建立有载频的射频通道上的载频配置对 应的压缩模式参数包括：
分别为至少两个建立有载频的射频通道上的载频配置不同的压缩模式参 数， 以使所述射频通道的传输间隙相互错开；
向终端发送所述压缩模式参数与所述载频的映射关系， 以供所述终端在 配置有压缩模式参数的载频所对应的射频通道上启动压缩模式， 利用所述载 频对应的压缩模式参数进行异频或异系统的测量。
9、根据权利要求 7或 8所述的方法， 其特征在于， 所述为至少一个建立 有载频的射频通道上的载频配置对应的压缩模式参数还包括：
向基站发送所述压缩模式参数与所述载频的映射关系， 以供所述基站根 据载频与无线链路的映射关系在配置有压缩模式参数的载频所对应的无线链 路上启动压缩模式， 利用所述载频对应的压缩模式参数进行异频或异系统的 测量。
10、 根据权利要求 1所述的方法， 其特征在于， 所述载频包括一个主载 频和至少一个辅载频， 当所述主载频和所述至少一个辅载频建立在终端的不 同射频通道上时， 所述为至少一个建立有载频的射频通道上的载频配置对应 的压缩模式参数包括：
为建立有至少一个辅载频的射频通道上的辅载频配置压缩模式参数； 向终端发送所述压缩模式参数与所述辅载频的映射关系， 以供所述终端 在配置有压缩模式参数的辅载频所对应的射频通道上启动压缩模式， 利用所 述压缩模式参数进行异频或异系统的测量。
11、根据权利要求 10所述的方法， 其特征在于， 所述为至少一个建立有 载频的射频通道上的载频配置对应的压缩模式参数还包括：
向基站发送所述压缩模式参数与所述辅载频的映射关系， 以供所述基站 根据载频与无线链路的映射关系在配置有压缩模式参数的辅载频所对应的无 线链路上启动压缩模式， 利用所述辅载频对应的压缩模式参数进行异频或异 系统的测量。
12、 根据权利要求 1所述的方法， 其特征在于， 所述根据所述载频与终 端的射频通道的映射关系， 为至少一个建立有载频的射频通道或所述射频通 道上的载频配置对应的压缩模式参数包括：
根据所述载频与终端的射频通道的映射关系， 获取建立有载频的射频通 道的带宽；
当每个建立有载频的射频通道的带宽小于对应的当前工作载频与待测量 载频之间的频率差值时， 为至少一个建立有载频的射频通道或所述射频通道 上的载频配置压缩模式参数。
13、 一种测量方法， 其特征在于， 包括：
获取无线网络控制器根据载频与终端的射频通道的映射关系为至少一个 建立有载频的射频通道或所述射频通道上的载频配置的对应的压缩模式参 数； 在对应有压缩模式参数的射频通道上启动压缩模式， 利用所述压缩模式 参数进行异频或异系统的测量。
14、 根据权利要求 13 所述的方法， 其特征在于， 所述获取无线网络控 制器才艮据载频与终端的射频通道的映射关系为至少一个建立有载频的射频通 道或所述射频通道上的载频配置的对应的压缩模式参数具体为：
根据所述无线网络控制器发送的所述压缩模式参数与所述射频通道的映 射关系获取所述的压缩模式参数； 或者
根据所述无线网络控制器发送的所述压缩模式参数与所述载频的映射关 系获取所述的压缩模式参数。
15、 一种测量方法， 其特征在于， 包括：
获取无线网络控制器根据载频与终端的射频通道的映射关系为至少一个 建立有载频的射频通道或所述射频通道上的载频配置的对应的压缩模式参 数；
在对应有压缩模式参数的无线链路上启动压缩模式， 利用所述压缩模式 参数进行异频或异系统的测量。
16、 根据权利要求 15 所述的方法， 其特征在于， 所述获取无线网络控 制器才艮据载频与终端的射频通道的映射关系为至少一个建立有载频的射频通 道或所述射频通道上的载频配置的对应的压缩模式参数具体为：
根据所述无线网络控制器发送的所述压缩模式参数与所述射频通道的映 射关系、 载频与无线链路的映射关系和所述载频与终端的射频通道的映射关 系获取所述压缩模式参数； 或者
根据所述无线网络控制器发送的所述压缩模式参数与所述载频的映射关 系和载频与无线链路的映射关系获取所述压缩模式参数。
17、 一种无线网络控制器， 其特征在于， 包括：
第一获取模块， 用于获取载频与终端的射频通道的映射关系；
配置模块， 用于才艮据所述载频与终端的射频通道的映射关系， 为至少一 个建立有载频的射频通道或所述射频通道上的载频配置对应的压缩模式参 数。
18、 根据权利要求 17 所述的无线网络控制器， 其特征在于， 所述第一 获取模块包括： 第一获取单元， 用于从终端获取载频与终端的射频通道的映 射关系。
19、 根据权利要求 17 所述的无线网络控制器， 其特征在于， 所述第一 获取模块包括：
第二获取单元， 用于从终端获取的终端的射频能力信息；
第一确定单元， 用于根据所述终端的射频能力信息确定载频与终端的射 频通道的映射关系。
20、 根据权利要求 17、 18或 19所述的无线网络控制器， 其特征在于， 所述配置模块包括：
第一配置单元， 用于当载频建立在终端的至少两个射频通道上时， 根据 所述载频与终端的射频通道的映射关系， 为一个建立有载频的射频通道配置 压缩模式参数；
第二配置单元， 用于当载频建立在终端的至少两个射频通道上时， 根据 所述载频与终端的射频通道的映射关系， 分别为至少两个建立有载频的射频 通道配置不同的压缩模式参数， 以使所述射频通道的传输间隙相互错开； 第三配置单元， 用于当所述载频包括一个主载频和至少一个辅载频， 且 所述主载频与所述至少一个辅载频建立在终端的不同射频通道上时， 才艮据所 述载频与终端的射频通道的映射关系， 为建立有至少一个辅载频的射频通道 配置压缩模式参数。
21、 根据权利要求 20 所述的无线网络控制器， 其特征在于， 所述无线 网络控制器还包括第一发送模块， 用于向终端发送所述压缩模式参数与所述 射频通道的映射关系， 以供所述终端在配置有压缩模式参数的射频通道上启 动压缩模式， 利用所述压缩模式参数进行异频或异系统的测量。
22、 根据权利要求 17、 18或 19所述的无线网络控制器， 其特征在于， 所述无线网络控制器还包括：
确定模块， 用于根据载频与无线链路的映射关系和所述载频与终端的射 频通道的映射关系， 确定射频通道与无线链路的映射关系；
第二发送模块， 用于向基站发送所述压缩模式参数与所述射频通道的映 射关系和所述射频通道与无线链路的映射关系， 以供所述基站在配置有压缩 模式参数的射频通道所承载的无线链路上启动压缩模式， 利用所述射频通道 对应的压缩模式参数进行异频或异系统的测量。
23、 根据权利要求 17、 18或 19所述的无线网络控制器， 其特征在于， 所述配置模块包括：
第四配置单元， 用于当载频建立在终端的至少两个射频通道上时， 根据 所述载频与终端的射频通道的映射关系， 为一个建立有载频的射频通道上的 载频配置压缩模式参数；
第五配置单元， 用于当载频建立在终端的至少两个射频通道上时， 根据 所述载频与终端的射频通道的映射关系， 分别为至少两个建立有载频的射频 通道上的载频配置不同的压缩模式参数， 以使所述射频通道的传输间隙相互 错开；
第六配置单元， 用于当所述载频包括一个主载频和至少一个辅载频， 所 述主载频与所述至少一个辅载频建立在终端的不同射频通道上时， 根据所述 载频与终端的射频通道的映射关系， 为建立有至少一个辅载频的射频通道上 的辅载频配置压缩模式参数。
24、 根据权利要求 23 所述的无线网络控制器， 其特征在于， 所述无线 网络控制器还包括第三发送模块， 用于向终端发送所述压缩模式参数与所述 载频的映射关系， 以供所述终端在配置有压缩模式参数的载频所对应的射频 通道上启动压缩模式， 利用所述载频对应的压缩模式参数进行异频或异系统 的测量。
25、 根据权利要求 24 所述的无线网络控制器， 其特征在于， 所述无线 网络控制器还包括第四发送模块， 用于向基站发送所述压缩模式参数与所述 载频的映射关系， 以供所述基站根据载频与无线链路的映射关系在配置有压 缩模式参数的载频所对应的无线链路上启动压缩模式， 利用所述载频对应的 压缩模式参数进行异频或异系统的测量。
26、 一种终端， 其特征在于， 包括：
第二获取模块， 用于获取无线网络控制器根据载频与终端的射频通道的 映射关系为至少一个建立有载频的射频通道或所述射频通道上的载频配置的 对应的压缩模式参数； 第一测量模块，用于在对应有压缩模式参数的射频通道上启动压缩模式， 利用所述压缩模式参数进行异频或异系统的测量。
27、 一种基站， 其特征在于， 包括：
第三获取模块， 用于获取无线网络控制器根据载频与终端的射频通道的 映射关系为至少一个建立有载频的射频通道或所述射频通道上的载频配置的 对应的压缩模式参数；
第二测量模块，用于在对应有压缩模式参数的无线链路上启动压缩模式， 利用所述压缩模式参数进行异频或异系统的测量。
28、 根据权利要求 27 所述的基站， 其特征在于， 所述第三获取模块包 括：
第三获取单元， 用于获取所述无线网络控制器发送的所述压缩模式参数 与所述射频通道的映射关系、 载频与无线链路的映射关系和所述载频与终端 的射频通道的映射关系；
第二确定单元， 用于根据所述第三获取单元所获取的映射关系确定所述 压缩模式参数与无线链路的映射关系。
29、 根据权利要求 27 所述的基站， 其特征在于， 所述第三获取模块包 括：
第四获取单元 , 用于获取所述无线网络控制器发送的所述压缩模式参数 与所述载频的映射关系和载频与无线链路的映射关系；
第三确定单元， 用于根据所述第四获取单元所获取的映射关系确定获取 所述压缩模式参数与无线链路的映射关系。
30、 一种测量系统， 其特征在于， 包括无线网络控制器， 用于获取载频 与终端的射频通道的映射关系，才艮据所述载频与终端的射频通道的映射关系， 为至少一个建立有载频的射频通道或所述射频通道上的载频配置对应的压缩 模式参数， 以供终端和基站在所述至少一个射频通道上进行异频或异系统的 测量。
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