WO2012009850A1 - 一种传输间隙样式序列的处理方法和系统 - Google Patents

一种传输间隙样式序列的处理方法和系统 Download PDF

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Publication number
WO2012009850A1
WO2012009850A1 PCT/CN2010/075295 CN2010075295W WO2012009850A1 WO 2012009850 A1 WO2012009850 A1 WO 2012009850A1 CN 2010075295 W CN2010075295 W CN 2010075295W WO 2012009850 A1 WO2012009850 A1 WO 2012009850A1
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WIPO (PCT)
Prior art keywords
transmission gap
gap pattern
pattern sequence
transmission
node
Prior art date
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PCT/CN2010/075295
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English (en)
French (fr)
Inventor
程翔
Original Assignee
中兴通讯股份有限公司
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Filing date
Publication date
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 EP10854880.1A priority Critical patent/EP2584838A4/en
Priority to CN201080067547.3A priority patent/CN102960027B/zh
Priority to PCT/CN2010/075295 priority patent/WO2012009850A1/zh
Priority to US13/810,653 priority patent/US20130121294A1/en
Publication of WO2012009850A1 publication Critical patent/WO2012009850A1/zh

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Classifications

    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W24/00—Supervisory, monitoring or testing arrangements
    • H04W24/10—Scheduling measurement reports ; Arrangements for measurement reports
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W72/00—Local resource management
    • H04W72/20—Control channels or signalling for resource management
    • H04W72/23—Control channels or signalling for resource management in the downlink direction of a wireless link, i.e. towards a terminal
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L5/00—Arrangements affording multiple use of the transmission path
    • H04L5/0001—Arrangements for dividing the transmission path
    • H04L5/0003—Two-dimensional division
    • H04L5/0005—Time-frequency
    • H04L5/0007—Time-frequency the frequencies being orthogonal, e.g. OFDM(A), DMT
    • H04L5/001—Time-frequency the frequencies being orthogonal, e.g. OFDM(A), DMT the frequencies being arranged in component carriers
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W72/00—Local resource management
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W72/00—Local resource management
    • H04W72/02—Selection of wireless resources by user or terminal
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W72/00—Local resource management
    • H04W72/20—Control channels or signalling for resource management
    • H04W72/29—Control channels or signalling for resource management between an access point and the access point controlling device
    • 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 wireless communications, and in particular, to a processing method and system for transmitting a gap pattern sequence. Background technique
  • GSM Global Mobile Communications
  • WCDMA Wideband Code Division Multiple Access
  • E-UTRA enhanced Universal Radio Access
  • E-UTRA Enhanced Universal Radio Access
  • the carrier's usual wireless network function is located as follows:
  • the second generation GSM system is mainly used to carry voice
  • the third generation WCDMA system is mainly used to carry packet domain services and session and video services
  • the UTRAN system is mainly used to carry ultra-high speed packet domain services.
  • the above-mentioned inter-system mobility management, as well as the load balancing between the carrier frequencies of each layer, requires the measurement of the target system and the target carrier frequency in the prior handover preparation phase to accurately execute the handover strategy.
  • the compression mode plays an important role in carrier frequency and intersystem measurement.
  • the terminal When using compressed mode, the terminal will be able to measure non-serving carrier frequencies and other systems without having to configure dual receivers. Carrier frequency.
  • the compressed mode can also be used for terminal access to multiple carrier coverage areas of third-generation WCDMA systems. In compressed mode, the terminal can measure another non-serving carrier frequency without losing any data transmitted on the serving carrier frequency.
  • the compression mode is defined as a transmission mode in which data transmission is compressed in the time domain to produce a transmission gap.
  • the receiver of the terminal can use this transmission gap to tune to another carrier frequency for measurement.
  • the transmission gap is determined by the transmission gap pattern sequence description, and each set of transmission gap pattern sequences is uniquely identified by the transmission gap pattern sequence identifier, and can only be used for one transmission gap pattern sequence measurement purpose, that is, one of the following measurement purposes. : Frequency division duplex measurement, time division duplex measurement,
  • GSM carrier received signal strength indication (Received Signal Strength Indication) measurement
  • GSM base station identification color code initial identification GSM base station identification color code recognition re-acknowledgment
  • multi-carrier frequency measurement E-UTRA measurement, and the like.
  • Each set of transmission gap patterns contains alternating transmission gap patterns 1 and transmission gap patterns 2.
  • Each transmission gap pattern provides one or two transmission gaps within one transmission gap pattern length.
  • each set of transmission gap patterns includes a transmission gap connection frame number (CFN, Connection Frame Number) indicating the start/stop compression mode time, the number of repetitions of the transmission gap pattern, and the like. These parameters are determined based on the transmission gap pattern sequence measurement usage.
  • CFN Connection Frame Number
  • each transmission gap pattern sequence measurement application requires a set of transmission gap pattern sequences, when performing multiple measurements simultaneously, such as simultaneous measurement of GSM carrier received signal strength indication and GSM base station identification color code initial identification, It may happen that the sets of transmission gap patterns are simultaneously performed in parallel. In this case, it must be ensured that the sets of transmission gap patterns do not overlap each other, or that each transmission is determined by the set of transmission gap pattern sequences. The gap cannot fall in the same radio frame. Otherwise, the terminal will not be able to complete the measurements associated with the overlapping transmission gap pattern sequence.
  • control of the start and stop of the compressed mode is in the radio network controller
  • the terminal reports the radio signal quality of the current serving cell/carrier frequency to the RNC (eg, the radio signal quality of the current serving cell/carrier frequency is below a certain threshold), and the RNC determines whether inter-carrier/inter-system measurement is to be performed (eg, the current serving cell The quality of the wireless signal is not good and may need to be prepared to switch to the inter-carrier/inter-system neighboring area). If inter-carrier/inter-system measurements are required, the RNC informs Node B and the terminal of the sequence of transmission gap patterns initiated.
  • the Node B does not perform data transmission in each transmission gap determined by the transmission gap pattern sequence, and the terminal does not perform data reception in each transmission gap determined by the transmission gap pattern sequence, and performs carrier frequency for transmission gap pattern sequence measurement purposes.
  • Inter-/system-to-system measurements When the RNC obtains the measurement results of the inter-carrier/inter-system measurements, it can decide to stop the transmission gap pattern sequence and inform the Node B and the terminal. Subsequently, Node B and the terminal exit the compressed mode for normal data transmission and reception.
  • the threshold of the compression mode activation is set to be easier to trigger, so as to ensure that the carrier frequency is before the terminal is dropped (that is, during the terminal call).
  • Inter-/system-to-system measurements have enough time to complete. However, this will result in a smaller coverage boundary of the cell, the cell coverage cannot be effectively utilized, and the compression mode lasts for a long time, which also has a negative impact on the capacity of the system and the throughput of the user.
  • the main purpose of the present invention is to provide a processing method and system for transmitting a gap pattern sequence to solve the problem that the compression mode has a long duration in the prior art, which has a negative impact on the capacity of the system and the throughput of the user. problem.
  • the present invention provides a processing method for a transmission gap pattern sequence, the method comprising: controlling a start of a transmission gap pattern sequence by a terminal or a Node B to transmit at a current start Performing a new transmission gap pattern sequence in a manner of superimposing a sequence of gap patterns, or by clearing all sequences of transmission gap patterns that have been currently activated;
  • the terminal or node B controls the stop of the transmission gap pattern sequence to stop the transmission of the gap pattern sequence, or to stop the transmission gap pattern sequence in a manner of stopping all of the currently transmitted transmission gap pattern sequences.
  • the method further includes: the terminal and the node B, and the radio network controller (RNC) pre-arranging information about starting a transmission gap pattern sequence of the compressed mode; or, RNC directions
  • RNC radio network controller
  • the information about the transmission gap pattern sequence in the compressed mode includes: one or more sets of transmission gap pattern sequence information; wherein, each set of transmission gap pattern sequence information includes at least: a transmission gap pattern sequence identifier, a transmission gap pattern sequence Measurement Use, Transmission Gap Pattern 1 and/or Transmission Gap Pattern 2, information on the transmission gap provided by each transmission gap pattern over a transmission gap pattern length, and the number of repetitions of the transmission gap pattern.
  • the method further includes:
  • the RNC configures, by using Radio Resource Control (RRC) protocol layer control signaling, information about a transmission gap pattern sequence that initiates a compressed mode, and configures a transmission gap pattern sequence to the Node B by using Node B Application Part (NBAP) protocol layer control signaling.
  • RRC Radio Resource Control
  • NBAP Node B Application Part
  • the method further includes:
  • the terminal informs the Node B through a High Speed Dedicated Physical Control Channel (HS-DPCCH), the terminal and the Node B are superimposed on a sequence of transmission gap patterns that have been currently activated, or to clear all currently activated transmissions.
  • the manner of the gap pattern sequence performing an operation of starting a new transmission gap pattern sequence; performing the method of stopping the transmission gap pattern sequence by stopping the specified transmission gap pattern sequence or stopping all the currently transmitted transmission gap pattern sequences operating.
  • the method further includes:
  • the Node B informs the terminal by using a High Speed Shared Control Channel (HS-SCCH) command, the terminal and the Node B are superimposed on the currently transmitted transmission gap pattern sequence, or to clear all currently activated transmissions.
  • HS-SCCH High Speed Shared Control Channel
  • the manner of the gap pattern sequence performing an operation of starting a new transmission gap pattern sequence; performing the method of stopping the transmission gap pattern sequence by stopping the specified transmission gap pattern sequence or stopping all the currently transmitted transmission gap pattern sequences operating.
  • the present invention also provides a processing system for transmitting a gap pattern sequence.
  • the system is composed of a terminal and a node B, and the terminal or node B is used to control the start of the transmission gap pattern sequence to be in the currently transmitted transmission gap pattern.
  • the system further includes: an RNC, configured to pre-agreed with the terminal and the node B the information of the transmission gap pattern sequence of the startup compression mode; or, configuring the terminal and the node B with information of the transmission gap pattern sequence that initiates the compression mode;
  • the information about the transmission gap pattern sequence in the compressed mode includes: one or more sets of transmission gap pattern sequence information; wherein, each set of transmission gap pattern sequence information includes at least: a transmission gap pattern sequence identifier, a transmission gap pattern sequence Measurement Use, Transmission Gap Pattern 1 and/or Transmission Gap Pattern 2, information on the transmission gap provided by each transmission gap pattern over a transmission gap pattern length, and the number of repetitions of the transmission gap pattern.
  • the RNC is further configured to configure, by using RRC protocol layer control signaling, information about a transmission gap pattern sequence that initiates a compressed mode, and configure information of the transmission gap pattern sequence to the Node B by using NBAP protocol layer control signaling.
  • the terminal is further configured to notify the node B by using the HS-DPCCH, the terminal and the node B are superimposed on the currently transmitted transmission gap pattern sequence, or to clear all currently activated transmission gap pattern sequences. Performing an operation of starting a new transmission gap pattern sequence; performing the operation of stopping the transmission gap pattern sequence in a manner of stopping the specified transmission gap pattern sequence or stopping all currently transmitted transmission gap pattern sequences.
  • the Node B is further configured to notify the terminal by using an HS-SCCH command, where the terminal and the Node B are superimposed on a sequence of transmission gap patterns that have been currently activated, or to clear all currently transmitted transmission gap pattern sequences.
  • the operation of starting the new transmission gap pattern sequence is performed; the operation of stopping the transmission gap pattern sequence is performed in a manner of stopping the specified transmission gap pattern sequence or stopping all the currently transmitted transmission gap pattern sequences.
  • the present invention provides a method and system for processing a transmission gap pattern sequence, in which a terminal or a Node B controls the initiation of a transmission gap pattern sequence to superimpose a sequence of transmission gap patterns that have been currently activated, or to clear all current
  • the manner in which the sequence of transmission gap patterns has been initiated to perform the operation of initiating a new sequence of transmission gap patterns; the termination of the transmission gap pattern sequence by the terminal or Node B to stop the specified sequence of transmission gap patterns, or to stop all
  • the manner in which the gap pattern sequence has been currently initiated is transmitted to perform the operation of stopping the transmission of the gap pattern sequence.
  • it is possible to delay the start of the compression mode and reduce the duration of the compression mode, thereby improving system capacity and user throughput.
  • FIG. 1 is a schematic diagram of a transmission gap pattern sequence in the prior art
  • FIG. 2 is a flow chart of a processing method of a transmission gap pattern sequence according to the present invention.
  • FIG. 3 is a flowchart of a processing method for a transmission gap pattern sequence according to Embodiment 1 of the present invention
  • FIG. 4 is a flowchart of a processing method for a transmission gap pattern sequence according to Embodiment 2 of the present invention
  • FIG. Processing method flow chart 8 is a flowchart of a processing method for a transmission gap pattern sequence according to Embodiment 6 of the present invention
  • FIG. 10 is a flowchart of a processing method for a transmission gap pattern sequence according to Embodiment 8 of the present invention.
  • FIG. 13 is a flowchart of a method for processing a transmission gap pattern sequence according to Embodiment 11 of the present invention
  • FIG. 14 is a flowchart of a method for processing a transmission gap pattern sequence according to Embodiment 12 of the present invention. detailed description
  • a method for processing a transmission gap pattern sequence provided by the present invention mainly includes the following steps:
  • Step 201 The terminal and the node B pre-agreed with the RNC to start the information of the transmission gap pattern sequence of the compressed mode.
  • the RNC configures the terminal and the node B with information of the transmission gap pattern sequence that initiates the compressed mode.
  • the RNC may configure the information of the transmission gap pattern sequence in the compressed mode to be configured to the terminal through the RRC (Radio Resource Control) protocol layer control signaling, and control the signaling through the Node B Application Part (NBB) Node B configures the information of the transmission gap pattern sequence.
  • RRC Radio Resource Control
  • NBB Node B Application Part
  • the information about the sequence of the transmission gap pattern that initiates the compressed mode specifically includes: information of one or more sets of transmission gap pattern sequences.
  • the information for each set of transmission gap pattern sequences includes at least: Transmission gap pattern sequence identification, transmission gap pattern sequence measurement usage, transmission gap pattern 1 and/or transmission gap pattern 2, information of transmission gaps provided by each transmission gap pattern over a transmission gap pattern length, and repetition of transmission gap patterns frequency.
  • Step 202 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 203 The terminal or the node B controls the start of the transmission gap pattern sequence to perform a new transmission in a manner of superimposing on the currently transmitted transmission gap pattern sequence or in a manner of clearing all the currently started transmission gap pattern sequences. The operation of the gap pattern sequence.
  • Step 204 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence.
  • the terminal or node B controls the stop of the transmission gap pattern sequence to stop the specified transmission gap pattern sequence, or stops the transmission gap pattern sequence by stopping all the currently transmitted transmission gap pattern sequences. Operation.
  • the transmission gap pattern sequence identifier is encoded by three bits, and is an integer ranging from 0 to 7, for a total of eight values.
  • the transmission gap pattern sequence identifier with a value of 0 is reserved, indicating that all the currently transmitted transmission gap pattern sequences are used only when the terminal or the node B performs the operation of stopping the transmission of the gap pattern sequence; the remaining values are from A total of seven values from 1 to 7 are used to transmit the gap pattern sequence identification, and each set of transmission gap pattern sequences is uniquely identified by the transmission gap pattern sequence identifier.
  • the start or stop operation of the transmission gap pattern sequence is indicated by a bit code, and the bit value of 1 indicates start, and the bit value of 0 indicates stop.
  • the two methods are coded and indicated by a bit in a manner of superimposing a sequence of transmission gap patterns that have been currently activated, or in a manner of clearing all currently transmitted transmission gap pattern sequences, and
  • the bit value is 1, it means that it is already
  • the manner of superimposing the sequence of the transmitted transmission gap pattern is referred to as the superposition mode.
  • the value of the bit is 0 to clear all the currently transmitted transmission gap pattern sequences, and the subsequent abbreviations are cleared.
  • the High Speed Dedicated Physical Control Channel is a control channel in the uplink direction, which is used to carry feedback information for acknowledgment/denial (ACK/NACK) to successfully receive downlink data, and to carry downlink data reception quality. Quality feedback information.
  • ACK/NACK acknowledgment/denial
  • Quality feedback information In the HS-DPCCH, the field carrying the ACK/NACK information for the downlink data reception condition is called the "confirmation" field, and the "confirmation” field is composed of ten bits.
  • the prior art uses only a part of the coding.
  • the unused portion of the "confirm” field When the first bit of the "confirm” field has a value of 1 and the second bit has a value of 0, all the encoded values of the remaining eight bits from all 0s to all 1s are unused. In the following embodiments involving HS-DPCCH, when the first bit of the "confirm” field takes a value of 1, and the second bit takes a value of 0, the third, fourth and fifth bits of the "confirm” field are used.
  • the transmission gap pattern sequence identifier where: the transmission gap pattern sequence identifier with a value of 0 is reserved, indicating all the currently transmitted transmission gap pattern sequences, and only the terminal or node B performs the operation of stopping the transmission gap pattern sequence.
  • the remaining values take a total of seven values from 1 to 7, for the transmission gap pattern sequence identification, and each set of transmission gap pattern sequences are uniquely identified by the transmission gap pattern sequence identification;
  • the sixth bit indicates the start or stop operation of the transmission gap pattern sequence (the value of 1 indicates the start, and the value of the bit indicates 0); the seventh bit of the "confirm" field is used. Indicates how to superimpose or clear
  • High Speed Shared Control Channel (HS-SCCH, High Speed Shared Control Channel) is used to carry high speed downlink shared channel (HS-DSCH, High Speed Downlink Shared) Channel)
  • the information required for demodulation is the control channel in the downlink direction.
  • the Node B can send a High Speed Shared Control Channel Command (HS-SCCH order) to the terminal through the HS-SCCH, and the command terminal performs corresponding control.
  • the HS-SCCH order has a total of six bits.
  • the prior art uses only a part of the coding.
  • unused bits of six bits in the HS-SCCH order are used.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1
  • all the encoded values of the remaining five bits from all 0s to all 1s are unused.
  • the second, third and fourth of the six bits in the HS-SCCH order are used.
  • the bits represent the transmission gap pattern sequence identifier (where the transmission gap pattern sequence identifier with a value of 0 is reserved, indicating all the transmission gap pattern sequences that have been currently started, and only the terminal or node B performs the stop transmission gap pattern sequence. Used for the operation; the remaining values are from seven to seven, for the transmission gap pattern sequence identification, and each transmission gap pattern sequence is uniquely identified by the transmission gap pattern sequence identification;
  • the fifth bit of the six bits in the SCCH order indicates the start or stop operation of the transmission gap pattern sequence (this bit takes a value of 1 to indicate start, and when the bit takes a value of 0, it indicates stop); using HS-SCCH
  • the sixth bit of the six bits in the order indicates the superposition mode or the clear mode (this bit only performs the start transmission gap pattern sequence at the terminal or node B) Use operation, and the bit value is shown in Table 1 in a superimposed manner, to clear the bit value of mode 0).
  • the processing procedure of the first embodiment of the present invention mainly includes the following steps: Step 301: The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC; or, the RNC controls the signaling to the terminal through the RRC protocol layer.
  • the information of the transmission gap pattern sequence is configured, and the RNC configures the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the information of the transmission gap pattern sequence specifically includes:
  • the first transmission gap pattern sequence is used for frequency division duplex measurement, and the transmission gap pattern sequence identifier is 1, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is A transmission gap is provided within a transmission gap pattern length, and the transmission gap pattern is repeated 20 times;
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 302 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 303 The terminal sends, by using the HS-DPCCH, "initiate a new transmission gap pattern sequence (transmission gap pattern sequence identifier 1)" information to the node B in a manner superimposed on the currently started transmission gap pattern sequence.
  • the first bit of the "confirm” field of the HS-DPCCH has a value of 1 and the second bit has a value of 0.
  • the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH have a value of 1.
  • the sixth bit of the "confirm” field of the HS-DPCCH takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence
  • the "confirmation" field of the HS-DPCCH The seven bits take a value of 1 to indicate the superposition method.
  • Step 304 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 305 Before the number of repetitions of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed (20 times), the terminal transmits "by the HS-DPCCH" to start at the current time. The superposition of the transmission gap pattern sequence initiates a new transmission gap pattern sequence (transmission gap pattern sequence identification 5)" information to node B.
  • the first bit of the "confirm” field of the HS-DPCCH has a value of 1 and the second bit has a value of 0.
  • the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH have a value of 5.
  • the sixth bit of the "confirm” field of the HS-DPCCH takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the "confirmation” field of the HS-DPCCH
  • the seven bits take a value of 1 to indicate the superposition method.
  • Step 306 The terminal and the node B are superimposed to generate a transmission gap according to the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 and the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 307 the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed.
  • the transmission gap pattern sequence identified by the gap pattern sequence identifier 1 is stopped between the terminal and the node B, and the transmission gap is continuously generated according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 308 the number of repetitions (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is completed.
  • the transmission gap pattern sequence identified by the gap pattern sequence identifier 5 is stopped between the terminal and the node B, and normal data transmission and reception are resumed.
  • the processing procedure of the second embodiment of the present invention mainly includes the following steps: Step 401: The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC; or, the RNC controls the signaling to the terminal through the RRC protocol layer.
  • the information of the transmission gap pattern sequence is configured, and the RNC configures the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the information of the transmission gap pattern sequence specifically includes:
  • the first transmission gap pattern sequence is used for frequency division duplex measurement, and the transmission gap pattern sequence identifier is 1, and the transmission gap pattern sequence includes alternating transmission gap patterns 1 and transmission gap patterns. 2, and each transmission gap pattern provides a transmission gap within a transmission gap pattern length, and the transmission gap pattern is repeated 20 times;
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 402 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 403 The terminal sends, by using the HS-DPCCH, "initialization of a new transmission gap pattern sequence (transmission gap pattern sequence identifier 1)" to the node B in a manner superimposed on the currently started transmission gap pattern sequence.
  • the first bit of the "confirm” field of the HS-DPCCH has a value of 1 and the second bit has a value of 0.
  • the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH have a value of 1.
  • the sixth bit of the "confirm” field of the HS-DPCCH takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence
  • the "confirmation" field of the HS-DPCCH The seven bits take a value of 1 to indicate the superposition method.
  • Step 404 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 405 Before the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed, the terminal sends a message by using the HS-DPCCH to start the new one in the manner of superimposing the currently transmitted transmission gap pattern sequence.
  • the information of the transmission gap pattern sequence (transmission gap pattern sequence identifier 5) is given to node B.
  • the first bit of the "confirm" field of the HS-DPCCH has a value of 1 and the second bit has a value of 0.
  • the third, fourth, and fifth bits of the "confirm" field of the HS-DPCCH have a value of 5.
  • the sixth bit of the "confirm" field of the HS-DPCCH takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the "confirmation” field of the HS-DPCCH The seven bits take a value of 1 to indicate the superposition method.
  • Step 406 The terminal and the node B are superimposed to generate a transmission gap according to the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 and the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 407 before the completion of the repetition number (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1, and the repetition number (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is completed.
  • the terminal sent a message "to start a new transmission gap pattern sequence (transmission gap pattern sequence identification 6)" to the Node B by means of the HS-DPCCH to clear all currently enabled transmission gap pattern sequences.
  • the first bit of the "confirm” field of the HS-DPCCH takes a value of 1, and the second bit takes a value of 0.
  • the HS-DPCCH "confirm, the third, fourth, and fifth bits of the field are values. 6, to indicate the transmission gap pattern sequence identifier 6; the sixth bit of the "confirm” field of the HS-DPCCH takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the "confirm” field of the HS-DPCCH
  • the seventh bit takes a value of 0 to indicate the clearing mode.
  • Step 408 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is interrupted between the terminal and the node B, and the transmission gap pattern sequence identified by the interrupt transmission gap pattern sequence identifier 5 is interrupted.
  • the transmission gap is generated between the terminal and the Node B according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 6.
  • step 409 the number of repetitions of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 6 is completed 32 times.
  • the transmission gap pattern sequence identified by the gap pattern sequence identifier 6 is stopped between the terminal and the Node B, and normal data transmission and reception are resumed.
  • the processing procedure of the third embodiment of the present invention mainly includes the following steps: Step 501: The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC; or, the RNC controls the signaling to the terminal through the RRC protocol layer.
  • the information of the transmission gap pattern sequence is configured, and the RNC configures the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the information of the transmission gap pattern sequence specifically includes:
  • the first transmission gap pattern sequence is used for frequency division duplex measurement, and the transmission gap pattern sequence identifier is 1, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is A transmission gap is provided within a transmission gap pattern length, and the transmission gap pattern is repeated 20 times;
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 502 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 503 The terminal sends, by using the HS-DPCCH, "initialization of a new transmission gap pattern sequence (transmission gap pattern sequence identifier 1)" to the node B in a manner superimposed on the currently started transmission gap pattern sequence.
  • the first bit of the "confirm” field of the HS-DPCCH has a value of 1 and the second bit has a value of 0.
  • the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH have a value of 1. , to indicate the transmission gap pattern sequence identifier 1; the sixth bit value of the "confirm” field of the HS-DPCCH It is 1 to indicate the operation of starting a new transmission gap pattern sequence; the seventh bit of the "confirm” field of the HS-DPCCH takes a value of 1 to indicate the superposition mode.
  • Step 504 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 505 Before the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed, the terminal sends a message by using the HS-DPCCH to start a new one on the currently transmitted transmission gap pattern sequence.
  • the information of the transmission gap pattern sequence (transmission gap pattern sequence identifier 5) is given to node B.
  • the first bit of the "confirm” field of the HS-DPCCH takes a value of 1, and the second bit takes a value of 0.
  • the HS-DPCCH "confirm, the third, fourth, and fifth bits of the field are values. 5, to indicate the transmission gap pattern sequence identifier 5; the sixth bit of the "confirm” field of the HS-DPCCH takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the "confirm” field of the HS-DPCCH
  • the seventh bit takes a value of 1 to indicate the superposition method.
  • Step 506 The transmission gap is generated by superimposing between the terminal and the Node B according to the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 and the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 507 before the completion of the repetition number (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1, and the repetition number (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is completed.
  • the terminal sent "in column" information to Node B through the HS-DPCCH.
  • the first bit of the "confirm” field of the HS-DPCCH takes a value of 1, and the second bit takes a value of 0; the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH take a value of 0. , to indicate all the transmission gap pattern sequences that have been currently started; the sixth bit of the "confirm” field of the HS-DPCCH takes a value of 0 to indicate the operation of stopping the transmission of the gap pattern sequence.
  • Step 508 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is interrupted between the terminal and the node B, and the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is interrupted. Normal data transmission and reception are resumed between the terminal and the Node B.
  • Step 601 The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC; or, the RNC controls the signaling to the terminal through the RRC protocol layer.
  • the information of the transmission gap pattern sequence is configured, and the RNC configures the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the information of the transmission gap pattern sequence specifically includes:
  • the first transmission gap pattern sequence is used for frequency division duplex measurement, and the transmission gap pattern sequence identifier is 1, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is A transmission gap is provided within a transmission gap pattern length, and the transmission gap pattern is repeated 20 times;
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 602 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 603 The terminal sends, by using the HS-DPCCH, "initialization of a new transmission gap pattern sequence (transmission gap pattern sequence identifier 1)" to the Node B in a manner superimposed on the currently started transmission gap pattern sequence.
  • the first bit of the "confirm" field of the HS-DPCCH has a value of 1 and the second bit has a value of 0.
  • the third, fourth, and fifth bits of the "confirm" field of the HS-DPCCH have a value of 1.
  • the sixth bit of the "confirm" field of the HS-DPCCH takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the "confirmation” field of the HS-DPCCH The seven bits take a value of 1 to indicate the superposition method.
  • Step 604 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 605 Before the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed, the terminal sends a message by using the HS-DPCCH to start the new one in the manner of superimposing the currently transmitted transmission gap pattern sequence.
  • the information of the transmission gap pattern sequence (transmission gap pattern sequence identifier 5) is given to node B.
  • the first bit of the "confirm” field of the HS-DPCCH has a value of 1 and the second bit has a value of 0.
  • the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH have a value of 5.
  • the sixth bit of the "confirm” field of the HS-DPCCH takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the "confirmation” field of the HS-DPCCH
  • the seven bits take a value of 1 to indicate the superposition method.
  • Step 606 the terminal and the node B are combined according to the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 and the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5, to generate a transmission gap. .
  • Step 607 before the completion of the repetition number (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1, and the repetition number (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is completed.
  • the terminal transmitted the information of "stopping the transmission of the gap pattern sequence" to the Node B by the HS-DPCCH "to stop the specified transmission gap pattern sequence (transmission gap pattern sequence identifier 1).
  • the second bit of the "confirm” field of the HS-DPCCH takes the value 1
  • the third, fourth, and fifth bits of the "confirm" field of HS-DPCCH take the value 1 to indicate the transmission gap pattern sequence identifier 1 of the specified transmission gap pattern sequence
  • "confirm" of HS-DPCCH The sixth bit of the field takes a value of 0 to indicate the operation of stopping the transmission of the gap pattern sequence.
  • Step 608 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is interrupted between the terminal and the node B. The terminal and the node B continue to superimpose and generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 609 before the completion of the repetition number (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5, the terminal transmits "to stop the specified transmission gap pattern sequence (transmission gap pattern sequence identifier 5) through the HS-DPCCH.
  • the way to stop the transmission of the gap pattern sequence is to Node B.
  • the first bit of the "confirm” field of the HS-DPCCH has a value of 1 and the second bit has a value of 0.
  • the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH have a value of 5.
  • the sixth bit of the "confirm” field of the HS-DPCCH takes a value of 0 to indicate the operation of stopping the transmission of the gap pattern sequence.
  • Step 610 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is interrupted between the terminal and the node B. Normal data transmission and reception are resumed between the terminal and Node B.
  • Step 701 The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC; or, the RNC controls the signaling to the terminal through the RRC protocol layer.
  • the information of the transmission gap pattern sequence is configured, and the RNC configures the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the information of the transmission gap pattern sequence specifically includes:
  • the first transmission gap pattern sequence is used for frequency division duplex measurement, and the transmission gap pattern sequence identifier is 1, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is Provide a transmission gap within the length of a transmission gap pattern The number of repetitions of the gap pattern is 20 times;
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 702 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 703 The terminal sends, by using the HS-DPCCH, the information of the new transmission gap pattern sequence (transmission gap pattern sequence identifier 1) to the node B by clearing all the currently transmitted transmission gap pattern sequences.
  • the first bit of the "confirm” field of the HS-DPCCH takes a value of 1, and the second bit takes a value of 0.
  • the HS-DPCCH "confirm, the third, fourth, and fifth bits of the field are values. 1 , to indicate the transmission gap pattern sequence identifier 1; the sixth bit of the "confirm" field of the HS-DPCCH takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the "confirm” field of the HS-DPCCH
  • the seventh bit takes a value of 0 to indicate the clearing mode.
  • Step 704 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 705 Before the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed, the terminal sends a new transmission by using the HS-DPCCH to clear all the currently transmitted transmission gap pattern sequences.
  • the information of the transmission gap pattern sequence (transmission gap pattern sequence identifier 5)" is given to the node B.
  • the second bit of the "confirm” field of the HS-DPCCH takes the value 1
  • the second bit The value is 0
  • the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH are 5, indicating the transmission gap pattern sequence identifier 5
  • the sixth bit of the "confirm” field of the HS-DPCCH is taken
  • a value of 1 indicates the operation to initiate a new sequence of transmission gap patterns
  • the seventh bit of the "confirm” field of the HS-DPCCH takes a value of 0 to indicate the clearing mode.
  • Step 706 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is interrupted between the terminal and the node B.
  • the transmission gap is generated between the terminal and the Node B according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 707 before the completion of the number of repetitions (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5, the terminal transmits "to stop the specified transmission gap pattern sequence (transmission gap pattern sequence identifier 5) through the HS-DPCCH.
  • the way to stop the transmission of the gap pattern sequence is to Node B.
  • the first bit of the "confirm” field of the HS-DPCCH has a value of 1 and the second bit has a value of 0.
  • the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH have a value of 5.
  • the sixth bit of the "confirm” field of the HS-DPCCH takes a value of 0 to indicate the operation of stopping the transmission of the gap pattern sequence.
  • Step 708 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is interrupted between the terminal and the node B. Normal data transmission and reception are resumed between the terminal and Node B.
  • the processing procedure of the sixth embodiment of the present invention mainly includes the following steps: Step 801: The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC; or, the RNC controls the signaling to the terminal through the RRC protocol layer.
  • the information of the transmission gap pattern sequence is configured, and the RNC configures the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the information of the transmission gap pattern sequence specifically includes:
  • the first transmission gap pattern sequence is used for frequency division duplex measurement, and the transmission gap pattern sequence identifier is 1, and the transmission gap pattern sequence includes alternating transmission gap patterns 1 and transmission gap patterns. 2, and each transmission gap pattern provides a transmission gap within a transmission gap pattern length, and the transmission gap pattern is repeated 20 times;
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 802 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 803 The terminal sends, by using the HS-DPCCH, "initiate a new transmission gap pattern sequence (transmission gap pattern sequence identifier 1)" to the node B by clearing all the currently transmitted transmission gap pattern sequences.
  • the first bit of the "confirm” field of the HS-DPCCH has a value of 1 and the second bit has a value of 0.
  • the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH have a value of 1.
  • the sixth bit of the "confirm” field of the HS-DPCCH takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence
  • the "confirmation" field of the HS-DPCCH The seven bits take a value of 0 to indicate the clearing mode.
  • Step 804 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 805 Before the completion of the repetition number of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed 20 times, the terminal sends a new sequence by using the HS-DPCCH to "clear all the currently transmitted transmission gap pattern sequences."
  • the information of the transmission gap pattern sequence (transmission gap pattern sequence identifier 5)" is given to the node B.
  • the first bit of the "confirm" field of the HS-DPCCH has a value of 1 and the second bit has a value of 0.
  • the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH have a value of 5.
  • the sixth bit of the "confirm" field of the HS-DPCCH takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the "confirmation” field of the HS-DPCCH The seven bits take a value of 0 to indicate the clearing mode.
  • Step 806 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is interrupted between the terminal and the node B.
  • the transmission gap is generated between the terminal and the Node B according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 807 before the completion of the repetition number (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5, the terminal sends "to stop all current points" through the HS-DPCCH.
  • the first bit of the "confirm” field of the HS-DPCCH takes a value of 1, and the second bit takes a value of 0; the third, fourth, and fifth bits of the "confirm” field of the HS-DPCCH take a value of 0. , to indicate all the transmission gap pattern sequences that have been currently started; the sixth bit of the "confirm” field of the HS-DPCCH takes a value of 0 to indicate the operation of stopping the transmission of the gap pattern sequence.
  • Step 808 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is interrupted between the terminal and the node B. Normal data transmission and reception are resumed between the terminal and Node B.
  • the processing procedure of the seventh embodiment of the present invention mainly includes the following steps: Step 901: The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC; or, the RNC controls the signaling to the terminal through the RRC protocol layer.
  • the information of the transmission gap pattern sequence is configured, and the RNC configures the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the information of the transmission gap pattern sequence specifically includes:
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 902 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 903 The Node B sends, by using the HS-SCCH order, "initialization of a new transmission gap pattern sequence (transmission gap pattern sequence identifier 1)" to the terminal in a manner superimposed on the currently transmitted transmission gap pattern sequence.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 1 to indicate a transmission gap pattern sequence.
  • Step 904 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 905 Before the completion of the repetition number (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1, the Node B sends the HS-SCCH order to superimpose the sequence of the transmission gap pattern that has been currently activated. Start a new transmission gap pattern sequence The gap pattern sequence identifies 5)" information to the terminal.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 5 to represent a transmission gap pattern sequence. Identification 5; the fifth bit of the six bits in the HS-SCCH order takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the sixth bit value of the six bits in the HS-SCCH order It is 1 to indicate the superposition method.
  • Step 906 The terminal and the node B are superimposed to generate a transmission gap according to the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 and the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • step 907 the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed.
  • the transmission gap pattern sequence identified by the gap pattern sequence identifier 1 is stopped between the terminal and the node B, and the transmission gap is continuously generated according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 908 the number of repetitions (50 times) of the identified transmission gap pattern sequence of the transmission gap pattern sequence identifier 5 is completed.
  • the transmission gap pattern sequence identified by the gap pattern sequence identifier 5 is stopped between the terminal and the node B, and normal data transmission and reception are resumed.
  • the processing procedure of the eighth embodiment of the present invention mainly includes the following steps: Step 1001: The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC; or, the RNC controls the signaling to the terminal through the RRC protocol layer.
  • the information of the transmission gap pattern sequence is configured, and the RNC configures the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the information of the transmission gap pattern sequence specifically includes:
  • the first transmission gap pattern sequence is used for frequency division duplex measurement, and the transmission gap pattern sequence identifier is 1, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is Provide a transmission gap within the length of a transmission gap pattern The number of repetitions of the gap pattern is 20 times;
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 1002 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 1003 Node B sends, by the HS-SCCH order, "initialization of a new transmission gap pattern sequence (transmission gap pattern sequence identifier 1)" to the terminal in a manner superimposed on the currently transmitted transmission gap pattern sequence.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 1 to indicate a transmission gap pattern sequence.
  • Step 1004 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 1005 Before the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed, the Node B sends the method by the HS-SCCH order to superimpose on the currently transmitted transmission gap pattern sequence. The information of the new transmission gap pattern sequence (transmission gap pattern sequence identification 5) is started to the terminal.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; HS-SCCH The second, third and fourth bits of the six bits in the order take a value of 5 to represent the transmission gap pattern sequence identifier 5; the fifth bit of the six bits in the HS-SCCH order takes a value of 1 to represent The operation of starting a new transmission gap pattern sequence; the sixth bit of the six bits in the HS-SCCH order takes a value of 1 to indicate the superposition mode.
  • Step 1006 The transmission gap is generated by superimposing between the terminal and the Node B according to the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 and the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 1007 The number of repetitions (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is completed before the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed.
  • Node B sent a message to the terminal by the HS-SCCH order to "start a new transmission gap pattern sequence (transmission gap pattern sequence identification 6)" in a manner that clears all currently initiated transmission gap pattern sequences.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 6, to indicate a transmission gap pattern sequence.
  • Step 1008 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is interrupted between the terminal and the node B, and the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is interrupted.
  • the transmission gap is generated between the terminal and the Node B according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 6.
  • Step 1009 The repetition number (32 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 6 is completed.
  • the transmission gap pattern sequence identified by the gap pattern sequence identifier 6 is stopped between the terminal and the node B, and normal data transmission and reception are resumed.
  • Step 1101 The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC.
  • the RNC configures the information of the transmission gap pattern sequence to the terminal through the RRC protocol layer control signaling, and the RNC controls the signaling to the Node B through the NBAP protocol layer. Configure information for the transmission gap pattern sequence.
  • the information of the transmission gap pattern sequence specifically includes:
  • the first transmission gap pattern sequence is used for frequency division duplex measurement, and the transmission gap pattern sequence identifier is 1, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is A transmission gap is provided within a transmission gap pattern length, and the transmission gap pattern is repeated 20 times;
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 1102 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 1103 Node B sends, by the HS-SCCH order, "initialization of a new transmission gap pattern sequence (transmission gap pattern sequence identifier 1)" to the terminal in a manner superimposed on the currently transmitted transmission gap pattern sequence.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 1 to indicate a transmission gap pattern sequence. Identification 1; the fifth bit of the six bits in the HS-SCCH order takes a value of 1 to indicate the operation of initiating a new transmission gap pattern sequence; the sixth of the six bits in the HS-SCCH order The bit value is 1 to indicate the superposition mode.
  • Step 1104 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 1105 Before the completion of the repetition number (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1, the Node B sends the HS-SCCH order to superimpose the sequence of the transmission gap pattern that has been currently activated. The information of the new transmission gap pattern sequence (transmission gap pattern sequence identification 5) is started to the terminal.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 5 to represent a transmission gap pattern sequence. Identification 5; the fifth bit of the six bits in the HS-SCCH order takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the sixth bit value of the six bits in the HS-SCCH order It is 1 to indicate the superposition method.
  • Step 1106 The transmission gap is generated by superimposing between the terminal and the Node B according to the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 and the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 1107 The number of repetitions (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is completed before the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed.
  • Node B sent a message to the terminal by "sending the sequence of transmission gap patterns in a manner that stops all currently enabled transmission gap pattern sequences" through the HS-SCCH order.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third and fourth bits of the six bits in the HS-SCCH order take a value of 0 to indicate that all currently activated The transmission gap pattern sequence; the fifth bit of the six bits in the HS-SCCH order takes a value of 0 to indicate the operation of stopping the transmission of the gap pattern sequence.
  • Step 1108 the terminal and the node B interrupt the transmission gap pattern sequence identifier 1
  • the gap pattern sequence is transmitted and the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is interrupted. Normal data transmission and reception are resumed between the terminal and the Node B.
  • the processing procedure of the tenth embodiment of the present invention mainly includes the following steps: Step 1201: The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC; or, the RNC controls the signaling to the terminal through the RRC protocol layer.
  • the information of the transmission gap pattern sequence is configured, and the RNC configures the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the information of the transmission gap pattern sequence specifically includes:
  • the first transmission gap pattern sequence is used for frequency division duplex measurement, and the transmission gap pattern sequence identifier is 1, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is A transmission gap is provided within a transmission gap pattern length, and the transmission gap pattern is repeated 20 times;
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 1202 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 1203 Node B sends, by the HS-SCCH order, "initialization of a new transmission gap pattern sequence (transmission gap pattern sequence identifier 1)" to the terminal in a manner superimposed on the currently transmitted transmission gap pattern sequence.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; HS-SCCH The second, third and fourth bits of the six bits in the order take a value of 1 to represent the transmission gap pattern sequence identifier 1; the fifth bit of the six bits in the HS-SCCH order takes a value of 1 to represent The operation of starting a new transmission gap pattern sequence; the sixth bit of the six bits in the HS-SCCH order takes a value of 1 to indicate the superposition mode.
  • Step 1204 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 1205 Before the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed, the Node B sends the HS-SCCH order to superimpose the sequence of the transmission gap pattern that has been currently activated. The information of the new transmission gap pattern sequence (transmission gap pattern sequence identification 5) is started to the terminal.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 5 to represent a transmission gap pattern sequence. Identification 5; the fifth bit of the six bits in the HS-SCCH order takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the sixth bit value of the six bits in the HS-SCCH order It is 1 to indicate the superposition method.
  • Step 1206 The transmission gap is generated by superimposing between the terminal and the Node B according to the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 and the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 1207 The number of repetitions (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is completed before the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is completed.
  • the Node B transmitted the information of the "stop transmission of the gap pattern sequence" to the terminal by the HS-SCCH order to "stop the specified transmission gap pattern sequence (transmission gap pattern sequence identifier 1).
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 1 to indicate a designated transmission interval.
  • Step 1208 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is interrupted between the terminal and the node B. The terminal and the node B continue to superimpose and generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 1209 Before the completion of the repetition number (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5, the Node B sends the HS-SCCH order to stop the specified transmission gap pattern sequence (transmission gap pattern sequence identifier). 5) The way to stop transmitting the gap pattern sequence" information to the terminal.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 5 to indicate a specified transmission gap.
  • Step 1210 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is interrupted between the terminal and the node B. Normal data transmission and reception are resumed between the terminal and Node B.
  • the processing procedure of the eleventh embodiment of the present invention mainly includes the following steps: Step 1301: The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC; or, the RNC controls the signaling through the RRC protocol layer.
  • the terminal configures the information of the transmission gap pattern sequence, and the RNC configures the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the information of the transmission gap pattern sequence specifically includes:
  • the first transmission gap pattern sequence is used for frequency division duplex measurement, and the transmission gap pattern sequence identifier is 1, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is A transmission gap is provided within a transmission gap pattern length, and the transmission gap pattern is repeated 20 times;
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 1302 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 1303 The Node B sends, by using the HS-SCCH order, "initiate a new transmission gap pattern sequence (transmission gap pattern sequence identifier 1)" information to the terminal in a manner of clearing all currently started transmission gap pattern sequences.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 1 to indicate a transmission gap pattern sequence. Identification 1; the fifth bit of the six bits in the HS-SCCH order takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the sixth bit value of the six bits in the HS-SCCH order 0, to indicate the clearing method.
  • Step 1304 The terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 1305 Before the completion of the repetition number (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1, the Node B sends the HS-SCCH order to "clear all the currently started transmission gap pattern sequences."
  • the new transmission gap pattern sequence (transmission gap pattern sequence identifier 5)" information is given to the terminal.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 5 to indicate a transmission gap pattern. Sequence identification 5; the fifth bit of the six bits in the HS-SCCH order takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the sixth bit of the six bits in the HS-SCCH order is taken A value of 0 indicates the clearing method.
  • Step 1306 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is interrupted between the terminal and the node B.
  • the transmission gap is generated between the terminal and the Node B according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 1307 Before the completion of the repetition number (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5, the Node B sends "by HS-SCCH order" to stop the specified transmission gap pattern sequence (transmission gap pattern sequence identifier) 5) The way to stop transmitting the gap pattern sequence" information to the terminal.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 5 to indicate a specified transmission gap.
  • Step 1308 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is interrupted between the terminal and the node B. Normal data transmission and reception are resumed between the terminal and Node B.
  • the processing procedure of the twelfth embodiment of the present invention mainly includes the following steps: Step 1401: The terminal and the Node B pre-agreed the information of the transmission gap pattern sequence with the RNC; or, the RNC controls the signaling through the RRC protocol layer.
  • the terminal configures the information of the transmission gap pattern sequence, and the RNC configures the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the information of the transmission gap pattern sequence specifically includes:
  • the first transmission gap pattern sequence is used for frequency division duplex measurement, and the transmission gap pattern sequence identifier is 1, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is Provide a transmission gap within the length of a transmission gap pattern The number of repetitions of the gap pattern is 20 times;
  • the second transmission gap pattern sequence is used for initial identification of the GSM base station identification color code, and the transmission gap pattern sequence identifier is 5, and the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap The pattern provides two transmission gaps within one transmission gap pattern length, and the transmission gap pattern is repeated 50 times;
  • the third transmission gap pattern sequence is used for E-UTRA measurement, and the transmission gap pattern sequence identifier is 6.
  • the transmission gap pattern sequence includes alternating transmission gap pattern 1 and transmission gap pattern 2, and each transmission gap pattern is in one Two transmission gaps are provided within the length of the transmission gap pattern, and the number of repetitions of the transmission gap pattern is 32.
  • Step 1402 Perform normal data transmission and reception between the terminal and the Node B.
  • Step 1403 Node B sends, by using the HS-SCCH order, "initiate a new transmission gap pattern sequence (transmission gap pattern sequence identifier 1)" information to the terminal in a manner to clear all currently initiated transmission gap pattern sequences.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third, and fourth bits of the six bits in the HS-SCCH order take a value of 1 to indicate a transmission gap pattern sequence. Identification 1; the fifth bit of the six bits in the HS-SCCH order takes a value of 1 to indicate the operation of starting a new transmission gap pattern sequence; the sixth bit value of the six bits in the HS-SCCH order 0, to indicate the clearing method.
  • Step 1404 the terminal and the node B generate a transmission gap according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1.
  • Step 1405 Before the completion of the number of repetitions (20 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1, the Node B sends the HS-SCCH order to "clear all the currently started transmission gap pattern sequences."
  • the new transmission gap pattern sequence (transmission gap pattern sequence identifier 5)" information is given to the terminal.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; HS-SCCH The second, third and fourth bits of the six bits in the order take a value of 5 to represent the transmission gap pattern sequence identifier 5; the fifth bit of the six bits in the HS-SCCH order takes a value of 1 to represent The operation of starting a new transmission gap pattern sequence; the sixth bit of the six bits in the HS-SCCH order takes a value of 0 to indicate the clearing mode.
  • Step 1406 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 1 is interrupted between the terminal and the node B.
  • the transmission gap is generated between the terminal and the Node B according to the description of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5.
  • Step 1407 Before the number of repetitions (50 times) of the transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is completed, the node B sends "by HS-SCCH order" to stop the information to the terminal.
  • the first bit of the six bits in the HS-SCCH order takes a value of 1; the second, third and fourth bits of the six bits in the HS-SCCH order take a value of 0 to indicate that all currently activated The transmission gap pattern sequence; the fifth bit of the six bits in the HS-SCCH order takes a value of 0 to indicate the operation of stopping the transmission of the gap pattern sequence.
  • Step 1408 The transmission gap pattern sequence identified by the transmission gap pattern sequence identifier 5 is interrupted between the terminal and the node B. Normal data transmission and reception are resumed between the terminal and Node B.
  • the present invention further provides a processing system for transmitting a gap pattern sequence, the system is composed of a terminal and a node B, and the terminal or the node B is used to control the start of the transmission gap pattern sequence.
  • the operation of stopping the transmission of the gap pattern sequence is performed in a manner of specifying a sequence of transmission gap patterns, or in a manner of stopping all sequences of transmission gap patterns that have been currently activated.
  • the system further comprises: an RNC, configured to pre-arrange with the terminal and the node B Initiating information of a transmission gap pattern sequence of the compressed mode; or configuring, to the terminal and the node B, information of a transmission gap pattern sequence that initiates the compressed mode;
  • RNC Radio Network Controller
  • the information about the transmission gap pattern sequence in the compressed mode includes: one or more sets of transmission gap pattern sequence information; wherein, each set of transmission gap pattern sequence information includes at least: a transmission gap pattern sequence identifier, a transmission gap pattern sequence Measurement Use, Transmission Gap Pattern 1 and/or Transmission Gap Pattern 2, information on the transmission gap provided by each transmission gap pattern over a transmission gap pattern length, and the number of repetitions of the transmission gap pattern.
  • the RNC may configure the information of the transmission gap pattern sequence in the compressed mode to be configured to the terminal through the RRC protocol layer control signaling, and configure the information of the transmission gap pattern sequence to the Node B through the NBAP protocol layer control signaling.
  • the terminal is further configured to notify the node B by using the HS-DPCCH, and the terminal and the node B perform the startup in a manner of superimposing on the currently transmitted transmission gap pattern sequence, or in a manner of clearing all the currently started transmission gap pattern sequences.
  • the operation of the new transmission gap pattern sequence; the operation of stopping the transmission gap pattern sequence is performed in such a manner as to stop the specified transmission gap pattern sequence or in a manner of stopping all currently transmitted transmission gap pattern sequences.
  • the Node B is further configured to notify the terminal by using an HS-SCCH command, where the terminal and the Node B are superimposed on the currently transmitted transmission gap pattern sequence, or in a manner of clearing all currently initiated transmission gap pattern sequences.

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Abstract

本发明公开了一种传输间隙样式序列的处理方法，由终端或节点B控制传输间隙样式序列的启动，以在当前已经启动的传输间隙样式序列上叠加的方式、或者以清除所有当前已经启动的传输间隙样式序列的方式，来执行启动新的传输间隙样式序列的操作；由终端或节点B控制传输间隙样式序列的停止，以停止指定的传输间隙样式序列的方式、或者以停止所有当前已经启动的传输间隙样式序列的方式，来执行停止传输间隙样式序列的操作。本发明还公开了一种传输间隙样式序列的处理系统。通过本发明的方法和系统，能够延迟压缩模式启动的时间，减少压缩模式持续的时间，从而使系统容量和用户吞吐量得到提高。

Description

一种传输间隙样式序列的处理方法和系统 技术领域
本发明涉及无线通信领域， 尤其涉及一种传输间隙样式序列的处理方 法和系统。 背景技术
随着通信无线网络技术的不断演进， 从第二代的全球移动通信（GSM, Global System Mobile )系统到第三代的宽带码分多址（ WCDMA, Wideband Code Division Multiple Access ) 系统， 再到第三代的增强型全球无线接入网 络 ( E-UTRA, Enhanced Universal Radio Access ) 系统， 运营商的网络部署 也必然依据用户的需求， 存在多种制式系统并存的情况。 目前， 运营商通 常的无线网络功能定位为： 第二代的 GSM系统主要用于承载话音， 第三代 的 WCDMA系统主要用于承载分组域业务和会话类、 视频类业务， 第三代 的 E-UTRAN系统主要用于承载超高速的分组域业务。
因此，针对现有的网络部署，第二代的 GSM系统与第三代的 WCDMA 系统之间的移动性是非常重要的； 并且， 在不久的将来， 对于第三代的 E-UTRA系统的移动管理， 如切换到 E-UTRA系统的热点区域， 也将变得 重要起来。 另外， 基于各层载频间负荷均衡的频间切换也是在多载频组网 的网络中所必须的。
上述的这些系统间移动管理， 以及各层载频间负荷均衡， 所导致的切 换过程， 均需要在事先的切换准备阶段对目标系统以及目标载频进行测量， 以准确执行切换策略。
压缩模式在载频间和系统间测量中起到很重要的作用。 当釆用压缩模 式时， 终端将不需要配置双接收机就可以测量非服务的载频以及其他系统 的载频。 当只配置了一个接收机的终端， 从第三代 WCDMA系统移动到只 有第二代 GSM 系统覆盖的地区时， 只能釆用压缩模式来进行系统间的测 量。 同样， 压缩模式也可用于终端进出第三代 WCDMA系统的多载频覆盖 区域。 在压缩模式下， 终端可以测量另外一个非服务载频而不丟失在服务 载频上传输的任何数据。
压缩模式定义为一种传输模式， 通过这种方式， 数据传输在时域上将 被压缩而产生出一个传输间隙。 终端的接收机可利用这段传输间隙调谐到 另外一个载频上测量。
传输间隙由传输间隙样式序列来描述确定， 且每一套传输间隙样式序 列由传输间隙样式序列标识来唯一识别， 仅能够用于一种传输间隙样式序 列测量用途， 即以下测量用途中的一种： 频分双工测量、 时分双工测量、
GSM载波接收信号强度指示 （Received Signal Strength Indication )测量、 GSM基站识别色码初始识别、 GSM基站识别色码识别再次确认、多载频测 量、 E-UTRA测量等等。
每一套传输间隙样式序列， 如图 1 所示， 包含交替的传输间隙样式 1 和传输间隙样式 2。每种传输间隙样式在一个传输间隙样式长度内提供一个 或者两个传输间隙。 此外， 每一套传输间隙样式序列还包括指示启动 /停止 压缩模式时间的传输间隙连接帧号 （CFN, Connection Frame Number ), 传 输间隙样式的重复次数等等。 这些参数都是依据传输间隙样式序列测量用 途来确定的。
由于每一个传输间隙样式序列测量用途需要一套传输间隙样式序列， 那么在同时进行多种测量时，如同时进行 GSM载波接收信号强度指示测量 和 GSM基站识别色码初始识别这两种测量时，将可能会出现同时并行进行 各套传输间隙样式序列的情况。 在这种情况下， 必须保证各套传输间隙样 式序列互不重叠， 或者， 由各套传输间隙样式序列所描述确定的各个传输 间隙不能够落在同一无线帧中。 否则， 终端将无法完成与所重叠的传输间 隙样式序列相关的测量。
在现有技术中， 压缩模式的启动和停止的控制权在无线网络控制器
( RNC , Radio Network Controller )。终端向 RNC报告当前服务小区 /载频的 无线信号质量 (如当前服务小区 /载频的无线信号质量低于一定门限 ), RNC 判断是否要进行载频间 /系统间测量（如当前服务小区的无线信号质量不好， 可能需要准备切换到载频间 /系统间的邻区）。 如果需要进行载频间 /系统间 测量，则 RNC将启动的传输间隙样式序列告知节点 B和终端。节点 B在传 输间隙样式序列所描述确定的各个传输间隙中不进行数据发送， 终端在传 输间隙样式序列所描述确定的各个传输间隙中不进行数据接收、 且进行传 输间隙样式序列测量用途的载频间 /系统间测量。 当 RNC获得终端载频间 / 系统间测量的测量结果后，可以决定停止传输间隙样式序列，并告知节点 B 和终端。 随后， 节点 B和终端退出压缩模式， 进行正常的数据发送和接收。
在上述过程， 在工程上通常需要提前启动压缩模式， 也即压缩模式启 动的门限要设置的较易触发， 以此来确保在终端掉话之前（也就是能够维 持终端通话的期间）， 载频间 /系统间测量能够有足够的时间来完成。 然而， 这样会导致小区的覆盖边界变小， 小区覆盖不能被有效利用， 且压缩模式 持续的时间较长， 对系统的容量和用户的吞吐量也存在负面影响。 发明内容
有鉴于此， 本发明的主要目的在于提供一种传输间隙样式序列的处理 方法和系统， 以解决现有技术中压缩模式持续时间较长， 会对系统的容量 和用户的吞吐量造成负面影响的问题。
为达到上述目的， 本发明的技术方案是这样实现的：
本发明提供了一种传输间隙样式序列的处理方法， 该方法包括： 终端或节点 B控制传输间隙样式序列的启动， 以在当前已经启动的传 输间隙样式序列上叠加的方式、 或者以清除所有当前已经启动的传输间隙 样式序列的方式， 执行启动新的传输间隙样式序列的操作；
所述终端或节点 B控制传输间隙样式序列的停止， 以停止指定的传输 间隙样式序列的方式、 或者以停止所有当前已经启动的传输间隙样式序列 的方式， 执行停止传输间隙样式序列的操作。
在执行启动新的传输间隙样式序列的操作之前， 该方法进一步包括： 所述终端和节点 B , 与无线网络控制器 （RNC )预先约定启动压缩模 式的传输间隙样式序列的信息； 或者， RNC向所述终端和节点 B配置启动 压缩模式的传输间隙样式序列的信息；
所述启动压缩模式的传输间隙样式序列的信息包括： 一套或多套传输 间隙样式序列的信息； 其中， 每一套传输间隙样式序列的信息至少包括： 传输间隙样式序列标识、 传输间隙样式序列测量用途、 传输间隙样式 1和 / 或传输间隙样式 2、每种传输间隙样式在一个传输间隙样式长度内提供的传 输间隙的信息、 以及传输间隙样式的重复次数。
该方法进一步包括：
所述 RNC通过无线资源控制（RRC )协议层控制信令向终端配置启动 压缩模式的传输间隙样式序列的信息， 通过节点 B应用部分（ NBAP )协议 层控制信令向节点 B配置传输间隙样式序列的信息。
该方法进一步包括：
所述终端通过高速专用物理控制信道（HS-DPCCH )告知所述节点 B, 所述终端和节点 B以在当前已经启动的传输间隙样式序列上叠加的方式、 或者以清除所有当前已经启动的传输间隙样式序列的方式， 执行启动新的 传输间隙样式序列的操作； 以停止指定的传输间隙样式序列的方式、 或者 以停止所有当前已经启动的传输间隙样式序列的方式， 执行停止传输间隙 样式序列的操作。 该方法进一步包括：
所述节点 B通过高速共享控制信道（HS-SCCH )命令告知所述终端， 所述终端和节点 B以在当前已经启动的传输间隙样式序列上叠加的方式、 或者以清除所有当前已经启动的传输间隙样式序列的方式， 执行启动新的 传输间隙样式序列的操作； 以停止指定的传输间隙样式序列的方式、 或者 以停止所有当前已经启动的传输间隙样式序列的方式， 执行停止传输间隙 样式序列的操作。
本发明还提供了一种传输间隙样式序列的处理系统， 该系统由终端和 节点 B组成， 所述终端或节点 B, 用于控制传输间隙样式序列的启动， 以 在当前已经启动的传输间隙样式序列上叠加的方式、 或者以清除所有当前 已经启动的传输间隙样式序列的方式， 执行启动新的传输间隙样式序列的 操作； 控制传输间隙样式序列的停止， 以停止指定的传输间隙样式序列的 方式、 或者以停止所有当前已经启动的传输间隙样式序列的方式， 执行停 止传输间隙样式序列的操作。
该系统进一步包括： RNC, 用于与终端和节点 B预先约定启动压缩模 式的传输间隙样式序列的信息； 或者， 向终端和节点 B配置启动压缩模式 的传输间隙样式序列的信息；
所述启动压缩模式的传输间隙样式序列的信息包括： 一套或多套传输 间隙样式序列的信息； 其中， 每一套传输间隙样式序列的信息至少包括： 传输间隙样式序列标识、 传输间隙样式序列测量用途、 传输间隙样式 1和 / 或传输间隙样式 2、每种传输间隙样式在一个传输间隙样式长度内提供的传 输间隙的信息、 以及传输间隙样式的重复次数。
所述 RNC进一步用于， 通过 RRC协议层控制信令向终端配置启动压 缩模式的传输间隙样式序列的信息， 通过 NBAP协议层控制信令向节点 B 配置传输间隙样式序列的信息。 所述终端进一步用于， 通过 HS-DPCCH告知节点 B , 所述终端和节点 B 以在当前已经启动的传输间隙样式序列上叠加的方式、 或者以清除所有 当前已经启动的传输间隙样式序列的方式， 执行启动新的传输间隙样式序 列的操作； 以停止指定的传输间隙样式序列的方式、 或者以停止所有当前 已经启动的传输间隙样式序列的方式， 执行停止传输间隙样式序列的操作。
所述节点 B进一步用于，通过 HS-SCCH命令告知终端，所述终端和节 点 B以在当前已经启动的传输间隙样式序列上叠加的方式、 或者以清除所 有当前已经启动的传输间隙样式序列的方式， 执行启动新的传输间隙样式 序列的操作； 以停止指定的传输间隙样式序列的方式、 或者以停止所有当 前已经启动的传输间隙样式序列的方式， 执行停止传输间隙样式序列的操 作。
本发明所提供的一种传输间隙样式序列的处理方法和系统， 由终端或 节点 B控制传输间隙样式序列的启动， 以在当前已经启动的传输间隙样式 序列上叠加的方式、 或者以清除所有当前已经启动的传输间隙样式序列的 方式， 来执行启动新的传输间隙样式序列的操作； 由终端或节点 B控制传 输间隙样式序列的停止， 以停止指定的传输间隙样式序列的方式、 或者以 停止所有当前已经启动的传输间隙样式序列的方式， 来执行停止传输间隙 样式序列的操作。 通过本发明， 能够延迟压缩模式启动的时间， 减少压缩 模式持续的时间， 从而使系统容量和用户吞吐量得到提高。 附图说明
图 1为现有技术中传输间隙样式序列的示意图；
图 2为本发明一种传输间隙样式序列的处理方法流程图；
图 3为本发明实施例一中传输间隙样式序列的处理方法流程图 图 4为本发明实施例二中传输间隙样式序列的处理方法流程图 图 5为本发明实施例三中传输间隙样式序列的处理方法流程图 图 8为本发明实施例六中传输间隙样式序列的处理方法流程图； 图 10为本发明实施例八中传输间隙样式序列的处理方法流程图；
图 13为本发明实施例十一中传输间隙样式序列的处理方法流程图； 图 14为本发明实施例十二中传输间隙样式序列的处理方法流程图。 具体实施方式
下面结合附图和具体实施例对本发明的技术方案进一步详细阐述。 考虑到加快切换过程可以增加切换的可靠性， 尤其是在无线信号质量 快速恶化的区域， 通过加快切换的过程可以降低用户掉话的风险， 因此压 缩模式启动的时间越晚越好， 压缩模式持续的时间越短越好， 这样能提高 系统容量和用户吞吐量。 本发明所提供的一种传输间隙样式序列的处理方 法， 如图 2所示， 主要包括以下步骤：
步骤 201 , 终端和节点 B , 与 RNC预先约定启动压缩模式的传输间隙 样式序列的信息； 或者， RNC向终端和节点 B配置启动压缩模式的传输间 隙样式序列的信息。
RNC可以通过无线资源控制 （RRC, Radio Resource Control )协议层 控制信令向终端配置启动压缩模式的传输间隙样式序列的信息，通过节点 B 应用部分（ NBAP, NodeB Application Part )协议层控制信令向节点 B配置 传输间隙样式序列的信息。
其中， 启动压缩模式的传输间隙样式序列的信息具体包括： 一套或多 套传输间隙样式序列的信息。 每一套传输间隙样式序列的信息至少包括： 传输间隙样式序列标识， 传输间隙样式序列测量用途， 传输间隙样式 1和 / 或传输间隙样式 2,每种传输间隙样式在一个传输间隙样式长度内提供的传 输间隙的信息， 以及传输间隙样式的重复次数。
步骤 202, 终端和节点 B之间进行正常的数据发送和接收。
步骤 203 , 终端或节点 B控制传输间隙样式序列的启动， 以在当前已 经启动的传输间隙样式序列上叠加的方式、 或者以清除所有当前已经启动 的传输间隙样式序列的方式， 执行启动新的传输间隙样式序列的操作。
步骤 204, 终端和节点 B按照传输间隙样式序列的描述产生传输间隙。 在此过程中， 终端或节点 B控制传输间隙样式序列的停止， 以停止指 定的传输间隙样式序列的方式、 或者以停止所有当前已经启动的传输间隙 样式序列的方式， 来执行停止传输间隙样式序列的操作。
下面结合具体实施例， 对上述传输间隙样式序列的处理方法进一步详 细阐述。
需要说明的是， 以下各个实施例中， 传输间隙样式序列标识釆用三个 比特来编码， 取值为从 0到 7的整数， 共计八个取值。 其中， 约定取值为 0 的传输间隙样式序列标识预留出来， 表示所有当前已经启动的传输间隙样 式序列， 仅在终端或节点 B执行停止传输间隙样式序列的操作时使用； 其 余的取值从 1到 7的共计七个取值， 用于传输间隙样式序列标识， 且每一 套传输间隙样式序列由传输间隙样式序列标识来唯一识别。
以下各个实施例中， 传输间隙样式序列的启动或停止操作， 用一个比 特来编码进行指示， 且该比特取值为 1时表示启动， 该比特取值为 0时表 示停止。
以下各个实施例中， 以在当前已经启动的传输间隙样式序列上叠加的 方式， 或者以清除所有当前已经启动的传输间隙样式序列的方式， 这两种 方式用一个比特来编码进行指示， 且该比特取值为 1 时表示以在当前已经 启动的传输间隙样式序列上叠加的方式， 后续简称叠加方式； 该比特取值 为 0 时表示以清除所有当前已经启动的传输间隙样式序列的方式， 后续简 称清除方式。
高速专用物理控制信道 ( HS-DPCCH, High Speed Dedicated Physical Control Channel )是上行方向的控制信道，用来承载确认 /否认（ ACK/NACK ) 成功接收下行数据的反馈信息， 以及承载下行数据接收质量的质量反馈信 息。 HS-DPCCH中， 承载对于下行数据接收情况的 ACK/NACK信息的域 称为 "确认" 域， "确认" 域由十个比特构成。 现有技术仅仅用了其中一部 分的编码。
以下各个涉及 HS-DPCCH的实施例中，使用了 HS-DPCCH中十个比特
"确认" 域的未用编码部分。 当 "确认" 域的第一个比特取值为 1 , 第二个 比特取值为 0时， 余下的八个比特从全 0到全 1的所有编码取值均未使用。 以下各个涉及 HS-DPCCH的实施例中， 当 "确认" 域的第一个比特取值为 1 , 第二个比特取值为 0时， 用 "确认" 域的第三、 四和五个比特来表示传 输间隙样式序列标识（其中： 约定取值为 0 的传输间隙样式序列标识预留 出来， 表示所有当前已经启动的传输间隙样式序列， 仅在终端或节点 B执 行停止传输间隙样式序列的操作时使用； 其余的取值从 1到 7的共计七个 取值， 用于传输间隙样式序列标识， 且每一套传输间隙样式序列由传输间 隙样式序列标识来唯一识别）； 用 "确认 " 域的第六个比特来表示传输间隙 样式序列的启动或停止的操作 （该比特取值为 1 时表示启动， 该比特取值 为 0时表示停止）； 用 "确认" 域的第七个比特来表示叠加方式或清除方式
(该比特仅在终端或节点 B执行启动传输间隙样式序列的操作时使用， 且 该比特取值为 1时表示叠加方式， 该比特取值为 0时表示清除方式）。
高速共享控制信道（ HS-SCCH, High Speed Shared Control Channel )是 用来承载高速下行链路共享信道（ HS-DSCH, High Speed Downlink Shared Channel )解调制所需要的信息， 为下行方向的控制信道。 节点 B可以通过 HS-SCCH发送高速共享控制信道命令 ( HS-SCCH order )给终端， 命令终 端进行相应的控制。 HS-SCCH order共计有六个比特。现有技术仅仅用了其 中一部分的编码。
以下各个涉及 HS-SCCH order的实施例中， 使用了 HS-SCCH order中 六个比特的未用编码部分。 当 HS-SCCH order中这六个比特的第一个比特 取值为 1时， 余下的五个比特从全 0到全 1的所有编码取值均未使用。 以 下各个涉及 HS-SCCH order的实施例中， 当 HS-SCCH order中这六个比特 的第一个比特取值为 1时， 用 HS-SCCH order中这六个比特的第二、 三和 四个比特来表示传输间隙样式序列标识 （其中， 约定取值为 0 的传输间隙 样式序列标识预留出来， 表示所有当前已经启动的传输间隙样式序列， 仅 在终端或节点 B执行停止传输间隙样式序列的操作时使用； 其余的取值从 1到 7的共计七个取值， 用于传输间隙样式序列标识， 且每一套传输间隙样 式序列由传输间隙样式序列标识来唯一识别）； 用 HS-SCCH order中这六个 比特的第五个比特来表示传输间隙样式序列的启动或停止的操作 （该比特 取值为 1时表示启动， 该比特取值为 0时表示停止）； 用 HS-SCCH order中 这六个比特的第六个比特来表示叠加方式或清除方式（该比特仅在终端或 节点 B执行启动传输间隙样式序列的操作时使用， 且该比特取值为 1时表 示叠加方式， 该比特取值为 0时表示清除方式）。
本发明实施例一的处理过程如图 3所示， 主要包括以下步骤： 步骤 301 , 终端和节点 B, 与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令向终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令向节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括： 第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次；
第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 302, 终端和节点 B之间进行正常的数据发送和接收。
步骤 303 , 终端通过 HS-DPCCH发送 "以在当前已经启动的传输间隙 样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙样式序列标 识 1 )" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 1 , 来表 示传输间隙样式序列标识 1 ; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 1 , 来表示叠加方式。
步骤 304, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 305 ,在传输间隙样式序列标识 1所标识的传输间隙样式序列的重 复次数（ 20次）完成以前， 终端通过 HS-DPCCH发送 "以在当前已经启动 的传输间隙样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙 样式序列标识 5 )" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 5 , 来表 示传输间隙样式序列标识 5; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 1 , 来表示叠加方式。
步骤 306, 终端和节点 B之间按照传输间隙样式序列标识 1所标识的 传输间隙样式序列， 以及传输间隙样式序列标识 5 所标识的传输间隙样式 序列的描述， 来叠加产生传输间隙。
步骤 307,传输间隙样式序列标识 1所标识的传输间隙样式序列的重复 次数（ 20次） 完成。 终端和节点 B之间停止传输间隙样式序列标识 1所标 识的传输间隙样式序列， 继续按照传输间隙样式序列标识 5 所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 308,传输间隙样式序列标识 5所标识的传输间隙样式序列的重复 次数（ 50次） 完成。 终端和节点 B之间停止传输间隙样式序列标识 5所标 识的传输间隙样式序列， 恢复正常的数据发送和接收。
本发明实施例二的处理过程如图 4所示， 主要包括以下步骤： 步骤 401 , 终端和节点 B, 与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令给终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令给节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括：
第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次；
第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 402, 终端和节点 B之间进行正常的数据发送和接收。
步骤 403 , 终端通过 HS-DPCCH发送 "以在当前已经启动的传输间隙 样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙样式序列标 识 1 )" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 1 , 来表 示传输间隙样式序列标识 1 ; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 1 , 来表示叠加方式。
步骤 404, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 405 ,在传输间隙样式序列标识 1所标识的传输间隙样式序列的重 复次数（ 20次）完成以前， 终端通过 HS-DPCCH发送 "以在当前已经启动 的传输间隙样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙 样式序列标识 5 )" 的信息给节点 B。 其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 5 , 来表 示传输间隙样式序列标识 5; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 1 , 来表示叠加方式。
步骤 406, 终端和节点 B之间按照传输间隙样式序列标识 1所标识的 传输间隙样式序列， 以及传输间隙样式序列标识 5 所标识的传输间隙样式 序列的描述， 来叠加产生传输间隙。
步骤 407,在传输间隙样式序列标识 1所标识的传输间隙样式序列的重 复次数（ 20次） 完成以前， 且在传输间隙样式序列标识 5所标识的传输间 隙样式序列的重复次数（ 50次）完成以前， 终端通过 HS-DPCCH发送 "以 清除所有当前已经启动的传输间隙样式序列的方式启动新的传输间隙样式 序列 （传输间隙样式序列标识 6 )" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认，， 域的第三、 四和五个比特取值为 6, 来表 示传输间隙样式序列标识 6; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 0, 来表示清除方式。
步骤 408 , 终端和节点 B之间中断传输间隙样式序列标识 1所标识的 传输间隙样式序列， 以及中断传输间隙样式序列标识 5 所标识的传输间隙 样式序列。 终端和节点 B之间按照传输间隙样式序列标识 6所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 409,传输间隙样式序列标识 6所标识的传输间隙样式序列的重复 次数 32次完成。终端和节点 B之间停止传输间隙样式序列标识 6所标识的 传输间隙样式序列， 恢复正常的数据发送和接收。 本发明实施例三的处理过程如图 5所示， 主要包括以下步骤： 步骤 501 , 终端和节点 B, 与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令向终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令向节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括：
第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次；
第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 502, 终端和节点 B之间进行正常的数据发送和接收。
步骤 503 , 终端通过 HS-DPCCH发送 "以在当前已经启动的传输间隙 样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙样式序列标 识 1 )" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 1 , 来表 示传输间隙样式序列标识 1 ; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 1 , 来表示叠加方式。
步骤 504, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 505 ,在传输间隙样式序列标识 1所标识的传输间隙样式序列的重 复次数（ 20次）完成以前， 终端通过 HS-DPCCH发送 "以在当前已经启动 的传输间隙样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙 样式序列标识 5 )" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认，， 域的第三、 四和五个比特取值为 5 , 来表 示传输间隙样式序列标识 5; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 1 , 来表示叠加方式。
步骤 506, 终端和节点 B之间按照传输间隙样式序列标识 1所标识的 传输间隙样式序列， 以及传输间隙样式序列标识 5 所标识的传输间隙样式 序列的描述来叠加产生传输间隙。
步骤 507,在传输间隙样式序列标识 1所标识的传输间隙样式序列的重 复次数（ 20次） 完成以前， 且在传输间隙样式序列标识 5所标识的传输间 隙样式序列的重复次数（ 50次）完成以前， 终端通过 HS-DPCCH发送 "以 列" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 0, 来表 示所有当前已经启动的传输间隙样式序列； HS-DPCCH的 "确认" 域的第 六个比特取值为 0, 来表示停止传输间隙样式序列的操作。 步骤 508 , 终端和节点 B之间中断传输间隙样式序列标识 1所标识的 传输间隙样式序列， 以及中断传输间隙样式序列标识 5 所标识的传输间隙 样式序列。 终端和节点 B之间恢复正常的数据发送和接收。
本发明实施例四的处理过程如图 6所示， 主要包括以下步骤： 步骤 601 , 终端和节点 B, 与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令向终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令向节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括：
第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次；
第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 602, 终端和节点 B之间进行正常的数据发送和接收。
步骤 603 , 终端通过 HS-DPCCH发送 "以在当前已经启动的传输间隙 样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙样式序列标 识 1 )" 的信息给节点 B。 其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 1 , 来表 示传输间隙样式序列标识 1 ; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 1 , 来表示叠加方式。
步骤 604, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 605 ,在传输间隙样式序列标识 1所标识的传输间隙样式序列的重 复次数（ 20次）完成以前， 终端通过 HS-DPCCH发送 "以在当前已经启动 的传输间隙样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙 样式序列标识 5 )" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 5 , 来表 示传输间隙样式序列标识 5; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 1 , 来表示叠加方式。
步骤 606, 终端和节点 B之间按照传输间隙样式序列标识 1所标识的 这套传输间隙样式序列， 以及传输间隙样式序列标识 5 所标识的这套传输 间隙样式序列的描述， 来叠加产生传输间隙。
步骤 607,在传输间隙样式序列标识 1所标识的传输间隙样式序列的重 复次数（ 20次） 完成以前， 且在传输间隙样式序列标识 5所标识的传输间 隙样式序列的重复次数（ 50次）完成以前， 终端通过 HS-DPCCH发送 "以 停止指定的传输间隙样式序列（传输间隙样式序列标识 1 )的方式来停止传 输间隙样式序列 " 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 1 , 来表 示指定的传输间隙样式序列的传输间隙样式序列标识 1 ; HS-DPCCH的 "确 认" 域的第六个比特取值为 0, 来表示停止传输间隙样式序列的操作。
步骤 608 , 终端和节点 B之间中断传输间隙样式序列标识 1所标识的 传输间隙样式序列。 终端和节点 B之间继续按照传输间隙样式序列标识 5 所标识的传输间隙样式序列的描述来叠加产生传输间隙。
步骤 609,在传输间隙样式序列标识 5所标识的传输间隙样式序列的重 复次数（50次）完成以前， 终端通过 HS-DPCCH发送 "以停止指定的传输 间隙样式序列（传输间隙样式序列标识 5 )的方式来停止传输间隙样式序列" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 5 , 来表 示指定的传输间隙样式序列的传输间隙样式序列标识 5; HS-DPCCH的 "确 认" 域的第六个比特取值为 0, 来表示停止传输间隙样式序列的操作。
步骤 610, 终端和节点 B之间中断传输间隙样式序列标识 5所标识的 传输间隙样式序列。 终端和节点 B之间恢复正常的数据发送和接收。
本发明实施例五的处理过程如图 7所示， 主要包括以下步骤： 步骤 701 , 终端和节点 B, 与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令向终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令向节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括：
第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次；
第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 702, 终端和节点 B之间进行正常的数据发送和接收。
步骤 703 , 终端通过 HS-DPCCH发送 "以清除所有当前已经启动的传 输间隙样式序列的方式启动新的传输间隙样式序列 （传输间隙样式序列标 识 1 )" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认，， 域的第三、 四和五个比特取值为 1 , 来表 示传输间隙样式序列标识 1 ; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 0, 来表示清除方式。
步骤 704, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 705 ,在传输间隙样式序列标识 1所标识的传输间隙样式序列的重 复次数（ 20次）完成以前， 终端通过 HS-DPCCH发送 "以清除所有当前已 经启动的传输间隙样式序列的方式启动新的传输间隙样式序列 （传输间隙 样式序列标识 5 )" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 5 , 来表 示传输间隙样式序列标识 5; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 0, 来表示清除方式。
步骤 706, 终端和节点 B之间中断传输间隙样式序列标识 1所标识的 传输间隙样式序列。 终端和节点 B之间按照传输间隙样式序列标识 5所标 识的传输间隙样式序列的描述来产生传输间隙。
步骤 707,在传输间隙样式序列标识 5所标识的传输间隙样式序列的重 复次数（50次）完成以前， 终端通过 HS-DPCCH发送 "以停止指定的传输 间隙样式序列（传输间隙样式序列标识 5 )的方式来停止传输间隙样式序列" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 5 , 来表 示指定的传输间隙样式序列的传输间隙样式序列标识 5; HS-DPCCH的 "确 认" 域的第六个比特取值为 0, 来表示停止传输间隙样式序列的操作。
步骤 708 , 终端和节点 B之间中断传输间隙样式序列标识 5所标识的 传输间隙样式序列。 终端和节点 B之间恢复正常的数据发送和接收。
本发明实施例六的处理过程如图 8所示， 主要包括以下步骤： 步骤 801 , 终端和节点 B, 与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令向终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令向节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括：
第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次；
第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 802, 终端和节点 B之间进行正常的数据发送和接收。
步骤 803 , 终端通过 HS-DPCCH发送 "以清除所有当前已经启动的传 输间隙样式序列的方式启动新的传输间隙样式序列 （传输间隙样式序列标 识 1 )" 的信息给节点 B。
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 1 , 来表 示传输间隙样式序列标识 1 ; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 0, 来表示清除方式。
步骤 804, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 805 ,在传输间隙样式序列标识 1所标识的传输间隙样式序列的重 复次数 20次完成以前， 终端通过 HS-DPCCH发送 "以清除所有当前已经 启动的传输间隙样式序列的方式来进行启动新的传输间隙样式序列 （传输 间隙样式序列标识 5 )" 的信息给节点 B。 其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 5 , 来表 示传输间隙样式序列标识 5; HS-DPCCH 的 "确认" 域的第六个比特取值 为 1 , 来表示启动新的传输间隙样式序列的操作； HS-DPCCH 的 "确认" 域的第七个比特取值为 0, 来表示清除方式。
步骤 806, 终端和节点 B之间中断传输间隙样式序列标识 1所标识的 传输间隙样式序列。 终端和节点 B之间按照传输间隙样式序列标识 5所标 识的传输间隙样式序列的描述来产生传输间隙。
步骤 807,在传输间隙样式序列标识 5所标识的传输间隙样式序列的重 复次数（ 50次）完成以前， 终端通过 HS-DPCCH发送 "以停止所有当前已 点^
其中， HS-DPCCH 的 "确认" 域的第一个比特取值为 1 , 第二个比特 取值为 0; HS-DPCCH的 "确认" 域的第三、 四和五个比特取值为 0, 来表 示所有当前已经启动的传输间隙样式序列； HS-DPCCH的 "确认" 域的第 六个比特取值为 0, 来表示停止传输间隙样式序列的操作。
步骤 808 , 终端和节点 B之间中断传输间隙样式序列标识 5所标识的 传输间隙样式序列。 终端和节点 B之间恢复正常的数据发送和接收。
本发明实施例七的处理过程如图 9所示， 主要包括以下步骤： 步骤 901 , 终端和节点 B, 与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令向终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令向节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括：
第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次；
第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 902, 终端和节点 B之间进行正常的数据发送和接收。
步骤 903 , 节点 B通过 HS-SCCH order发送 "以在当前已经启动的传 输间隙样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙样式 序列标识 1 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 1 , 来表示传输间隙样式 序列标识 1 ; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 1 , 来表示叠加方式。
步骤 904, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 905 ,在传输间隙样式序列标识 1所标识的传输间隙样式序列的重 复次数（ 20次）完成以前， 节点 B通过 HS-SCCH order发送 "以在当前已 经启动的传输间隙样式序列上叠加的方式启动新的传输间隙样式序列 （传 输间隙样式序列标识 5 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 5 , 来表示传输间隙样式 序列标识 5; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 1 , 来表示叠加方式。
步骤 906, 终端和节点 B之间按照传输间隙样式序列标识 1所标识的 传输间隙样式序列， 以及传输间隙样式序列标识 5 所标识的传输间隙样式 序列的描述， 来叠加产生传输间隙。
步骤 907,传输间隙样式序列标识 1所标识的传输间隙样式序列的重复 次数（ 20次） 完成。 终端和节点 B之间停止传输间隙样式序列标识 1所标 识的传输间隙样式序列， 继续按照传输间隙样式序列标识 5 所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 908,传输间隙样式序列标识 5的所标识的传输间隙样式序列的重 复次数（ 50次） 完成。 终端和节点 B之间停止传输间隙样式序列标识 5所 标识的传输间隙样式序列， 恢复正常的数据发送和接收。
本发明实施例八的处理过程如图 10所示， 主要包括以下步骤： 步骤 1001 ,终端和节点 B,与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令向终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令向节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括：
第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次；
第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 1002, 终端和节点 B之间进行正常的数据发送和接收。
步骤 1003 , 节点 B通过 HS-SCCH order发送 "以在当前已经启动的传 输间隙样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙样式 序列标识 1 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 1 , 来表示传输间隙样式 序列标识 1 ; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 1 , 来表示叠加方式。
步骤 1004, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 1005 , 在传输间隙样式序列标识 1所标识的传输间隙样式序列的 重复次数（ 20次）完成以前， 节点 B通过 HS-SCCH order发送 "以在当前 已经启动的传输间隙样式序列上叠加的方式启动新的传输间隙样式序列 (传输间隙样式序列标识 5 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1； HS-SCCH order中这六个比特的第二、 三和四个比特取值为 5 , 来表示传输间隙样式 序列标识 5; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 1 , 来表示叠加方式。
步骤 1006, 终端和节点 B之间按照传输间隙样式序列标识 1所标识的 传输间隙样式序列， 以及传输间隙样式序列标识 5 所标识的传输间隙样式 序列的描述来叠加产生传输间隙。
步骤 1007, 在传输间隙样式序列标识 1所标识的传输间隙样式序列的 重复次数（20次） 完成以前， 且在传输间隙样式序列标识 5所标识的传输 间隙样式序列的重复次数（ 50次） 完成以前， 节点 B通过 HS-SCCH order 发送 "以清除所有当前已经启动的传输间隙样式序列的方式启动新的传输 间隙样式序列 （传输间隙样式序列标识 6 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 6, 来表示传输间隙样式 序列标识 6; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 0, 来表示清除方式。
步骤 1008, 终端和节点 B之间中断传输间隙样式序列标识 1所标识的 传输间隙样式序列， 并中断传输间隙样式序列标识 5 所标识的传输间隙样 式序列。 终端和节点 B之间按照传输间隙样式序列标识 6所标识的传输间 隙样式序列的描述来产生传输间隙。
步骤 1009, 传输间隙样式序列标识 6所标识的这套传输间隙样式序列 的重复次数（32次） 完成。 终端和节点 B之间停止传输间隙样式序列标识 6所标识的传输间隙样式序列， 恢复正常的数据发送和接收。
本发明实施例九的处理过程如图 11所示， 主要包括以下步骤： 步骤 1101 ,终端和节点 B,与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令向终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令向节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括：
第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次；
第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 1102, 终端和节点 B之间进行正常的数据发送和接收。
步骤 1103 , 节点 B通过 HS-SCCH order发送 "以在当前已经启动的传 输间隙样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙样式 序列标识 1 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 1 , 来表示传输间隙样式 序列标识 1 ; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 1 , 来表示叠加方式。
步骤 1104, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 1105 , 在传输间隙样式序列标识 1所标识的传输间隙样式序列的 重复次数（ 20次）完成以前， 节点 B通过 HS-SCCH order发送 "以在当前 已经启动的传输间隙样式序列上叠加的方式启动新的传输间隙样式序列 (传输间隙样式序列标识 5 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 5 , 来表示传输间隙样式 序列标识 5; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 1 , 来表示叠加方式。
步骤 1106, 终端和节点 B之间按照传输间隙样式序列标识 1所标识的 传输间隙样式序列， 以及传输间隙样式序列标识 5 所标识的传输间隙样式 序列的描述来叠加产生传输间隙。
步骤 1107 , 在传输间隙样式序列标识 1所标识的传输间隙样式序列的 重复次数（20次） 完成以前， 且在传输间隙样式序列标识 5所标识的传输 间隙样式序列的重复次数（ 50次） 完成以前， 节点 B通过 HS-SCCH order 发送 "以停止所有当前已经启动的传输间隙样式序列的方式来停止传输间 隙样式序列" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 0, 来表示所有当前已经 启动的传输间隙样式序列； HS-SCCH order中这六个比特的第五个比特取值 为 0, 来表示停止传输间隙样式序列的操作。
步骤 1108, 终端和节点 B之间中断传输间隙样式序列标识 1所标识的 传输间隙样式序列， 并中断传输间隙样式序列标识 5 所标识的传输间隙样 式序列。 终端和节点 B之间恢复正常的数据发送和接收。
本发明实施例十的处理过程如图 12所示， 主要包括以下步骤： 步骤 1201 ,终端和节点 B,与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令向终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令向节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括：
第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次；
第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 1202, 终端和节点 B之间进行正常的数据发送和接收。
步骤 1203 , 节点 B通过 HS-SCCH order发送 "以在当前已经启动的传 输间隙样式序列上叠加的方式启动新的传输间隙样式序列 （传输间隙样式 序列标识 1 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 1 , 来表示传输间隙样式 序列标识 1; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 1 , 来表示叠加方式。
步骤 1204, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 1205, 在传输间隙样式序列标识 1所标识的传输间隙样式序列的 重复次数（ 20次）完成以前， 节点 B通过 HS-SCCH order发送 "以在当前 已经启动的传输间隙样式序列上叠加的方式启动新的传输间隙样式序列 (传输间隙样式序列标识 5 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 5 , 来表示传输间隙样式 序列标识 5; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 1 , 来表示叠加方式。
步骤 1206, 终端和节点 B之间按照传输间隙样式序列标识 1所标识的 传输间隙样式序列， 以及传输间隙样式序列标识 5 所标识的传输间隙样式 序列的描述来叠加产生传输间隙。
步骤 1207, 在传输间隙样式序列标识 1所标识的传输间隙样式序列的 重复次数（ 20次） 完成以前， 且在传输间隙样式序列标识 5所标识的传输 间隙样式序列的重复次数（ 50次） 完成以前， 节点 B通过 HS-SCCH order 发送 "以停止指定的传输间隙样式序列（传输间隙样式序列标识 1 )的方式 来停止传输间隙样式序列" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 1 , 来表示指定的传输间 隙样式序列的传输间隙样式序列标识 1 ; HS-SCCH order中这六个比特的第 五个比特取值为 0, 来表示停止传输间隙样式序列的操作。
步骤 1208, 终端和节点 B之间中断传输间隙样式序列标识 1所标识的 传输间隙样式序列。 终端和节点 B之间继续按照传输间隙样式序列标识 5 所标识的传输间隙样式序列的描述来叠加产生传输间隙。
步骤 1209, 在传输间隙样式序列标识 5所标识的传输间隙样式序列的 重复次数（ 50次）完成以前， 节点 B通过 HS-SCCH order发送 "以停止指 定的传输间隙样式序列（传输间隙样式序列标识 5 )的方式来停止传输间隙 样式序列" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 5 , 来表示指定的传输间 隙样式序列的传输间隙样式序列标识 5; HS-SCCH order中这六个比特的第 五个比特取值为 0, 来表示停止传输间隙样式序列的操作。
步骤 1210, 终端和节点 B之间中断传输间隙样式序列标识 5所标识的 传输间隙样式序列。 终端和节点 B之间恢复正常的数据发送和接收。
本发明实施例十一的处理过程如图 13所示， 主要包括以下步骤： 步骤 1301 ,终端和节点 B,与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令向终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令向节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括：
第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次； 第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 1302, 终端和节点 B之间进行正常的数据发送和接收。
步骤 1303 , 节点 B通过 HS-SCCH order发送 "以清除所有当前已经启 动的传输间隙样式序列的方式启动新的传输间隙样式序列 （传输间隙样式 序列标识 1 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 1 , 来表示传输间隙样式 序列标识 1 ; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 0, 来表示清除方式。
步骤 1304, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 1305 , 在传输间隙样式序列标识 1所标识的传输间隙样式序列的 重复次数（ 20次）完成以前， 节点 B通过 HS-SCCH order发送 "以清除所 有当前已经启动的传输间隙样式序列的方式启动新的传输间隙样式序列 (传输间隙样式序列标识 5 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 5 , 来表示传输间隙样式 序列标识 5; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 0, 来表示清除方式。
步骤 1306, 终端和节点 B之间中断传输间隙样式序列标识 1所标识的 传输间隙样式序列。 终端和节点 B之间按照传输间隙样式序列标识 5所标 识的传输间隙样式序列的描述来产生传输间隙。
步骤 1307, 在传输间隙样式序列标识 5所标识的传输间隙样式序列的 重复次数（ 50次）完成以前， 节点 B通过 HS-SCCH order发送 "以停止指 定的传输间隙样式序列（传输间隙样式序列标识 5 )的方式来停止传输间隙 样式序列" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 5 , 来表示指定的传输间 隙样式序列的传输间隙样式序列标识 5; HS-SCCH order中这六个比特的第 五个比特取值为 0, 来表示停止传输间隙样式序列的操作。
步骤 1308, 终端和节点 B之间中断传输间隙样式序列标识 5所标识的 传输间隙样式序列。 终端和节点 B之间恢复正常的数据发送和接收。
本发明实施例十二的处理过程如图 14所示， 主要包括以下步骤： 步骤 1401 ,终端和节点 B,与 RNC预先约定传输间隙样式序列的信息； 或者， RNC通过 RRC协议层控制信令向终端配置传输间隙样式序列的信 息， RNC通过 NBAP协议层控制信令向节点 B配置传输间隙样式序列的信 息。
传输间隙样式序列的信息具体包括：
第一套传输间隙样式序列， 用于频分双工测量， 传输间隙样式序列标 识为 1 ,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供一个传输间隙， 传 输间隙样式的重复次数为 20次；
第二套传输间隙样式序列， 用于 GSM基站识别色码初始识别， 传输间 隙样式序列标识为 5 ,该套传输间隙样式序列包含交替的传输间隙样式 1和 传输间隙样式 2,且每种传输间隙样式在一个传输间隙样式长度内提供两个 传输间隙， 传输间隙样式的重复次数为 50次；
第三套传输间隙样式序列， 用于 E-UTRA测量， 传输间隙样式序列标 识为 6,该套传输间隙样式序列包含交替的传输间隙样式 1和传输间隙样式 2, 且每种传输间隙样式在一个传输间隙样式长度内提供两个传输间隙， 传 输间隙样式的重复次数为 32次。
步骤 1402, 终端和节点 B之间进行正常的数据发送和接收。
步骤 1403 , 节点 B通过 HS-SCCH order发送 "以清除所有当前已经启 动的传输间隙样式序列的方式启动新的传输间隙样式序列 （传输间隙样式 序列标识 1 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 1 , 来表示传输间隙样式 序列标识 1 ; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 0, 来表示清除方式。
步骤 1404, 终端和节点 B按照传输间隙样式序列标识 1所标识的传输 间隙样式序列的描述来产生传输间隙。
步骤 1405 , 在传输间隙样式序列标识 1所标识的传输间隙样式序列的 重复次数（ 20次）完成以前， 节点 B通过 HS-SCCH order发送 "以清除所 有当前已经启动的传输间隙样式序列的方式启动新的传输间隙样式序列 (传输间隙样式序列标识 5 )" 的信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1； HS-SCCH order中这六个比特的第二、 三和四个比特取值为 5 , 来表示传输间隙样式 序列标识 5; HS-SCCH order中这六个比特的第五个比特取值为 1 , 来表示 启动新的传输间隙样式序列的操作； HS-SCCH order中这六个比特的第六个 比特取值为 0, 来表示清除方式。
步骤 1406, 终端和节点 B之间中断传输间隙样式序列标识 1所标识的 传输间隙样式序列。 终端和节点 B之间按照传输间隙样式序列标识 5所标 识的传输间隙样式序列的描述来产生传输间隙。
步骤 1407, 在传输间隙样式序列标识 5所标识的传输间隙样式序列的 重复次数（ 50次）完成以前， 节点 B通过 HS-SCCH order发送 "以停止所 信息给终端。
其中， HS-SCCH order中这六个比特的第一个比特取值为 1 ; HS-SCCH order中这六个比特的第二、 三和四个比特取值为 0, 来表示所有当前已经 启动的传输间隙样式序列； HS-SCCH order中这六个比特的第五个比特取值 为 0, 来表示停止传输间隙样式序列的操作。
步骤 1408, 终端和节点 B之间中断传输间隙样式序列标识 5所标识的 传输间隙样式序列。 终端和节点 B之间恢复正常的数据发送和接收。
对应上述传输间隙样式序列的处理方法， 本发明还提供了一种传输间 隙样式序列的处理系统， 该系统由终端和节点 B组成， 终端或节点 B , 用 于以控制传输间隙样式序列的启动， 在当前已经启动的传输间隙样式序列 上叠加的方式、 或者以清除所有当前已经启动的传输间隙样式序列的方式， 执行启动新的传输间隙样式序列的操作； 控制传输间隙样式序列的停止， 以停止指定的传输间隙样式序列的方式、 或者以停止所有当前已经启动的 传输间隙样式序列的方式， 执行停止传输间隙样式序列的操作。
较佳的， 该系统进一步包括： RNC, 用于与终端和节点 B预先约定 启动压缩模式的传输间隙样式序列的信息； 或者， 向终端和节点 B配置 启动压缩模式的传输间隙样式序列的信息；
所述启动压缩模式的传输间隙样式序列的信息包括： 一套或多套传输 间隙样式序列的信息； 其中， 每一套传输间隙样式序列的信息至少包括： 传输间隙样式序列标识、 传输间隙样式序列测量用途、 传输间隙样式 1和 / 或传输间隙样式 2、每种传输间隙样式在一个传输间隙样式长度内提供的传 输间隙的信息、 以及传输间隙样式的重复次数。
RNC可以通过 RRC协议层控制信令向终端配置启动压缩模式的传输 间隙样式序列的信息， 通过 NBAP协议层控制信令向节点 B配置传输间隙 样式序列的信息。
终端进一步用于， 通过 HS-DPCCH告知节点 B , 该终端和节点 B以在 当前已经启动的传输间隙样式序列上叠加的方式、 或者以清除所有当前已 经启动的传输间隙样式序列的方式， 执行启动新的传输间隙样式序列的操 作； 以停止指定的传输间隙样式序列的方式、 或者以停止所有当前已经启 动的传输间隙样式序列的方式， 执行停止传输间隙样式序列的操作。
节点 B进一步用于， 通过 HS-SCCH命令告知终端， 该终端和节点 B 以在当前已经启动的传输间隙样式序列上叠加的方式、 或者以清除所有当 前已经启动的传输间隙样式序列的方式， 执行启动新的传输间隙样式序列 的操作； 以停止指定的传输间隙样式序列的方式、 或者以停止所有当前已 经启动的传输间隙样式序列的方式， 执行停止传输间隙样式序列的操作。
综上所述， 通过本发明的方法和系统， 能够延迟压缩模式启动的时间， 减少压缩模式持续的时间， 从而使系统容量和用户吞吐量得到提高。
以上所述， 仅为本发明的较佳实施例而已， 并非用于限定本发明的保 护范围。

Claims

权利要求书
1、 一种传输间隙样式序列的处理方法， 其特征在于， 该方法包括： 终端或节点 B控制传输间隙样式序列的启动， 以在当前已经启动的 传输间隙样式序列上叠加的方式、 或者以清除所有当前已经启动的传输 间隙样式序列的方式， 执行启动新的传输间隙样式序列的操作；
所述终端或节点 B控制传输间隙样式序列的停止， 以停止指定的传 输间隙样式序列的方式、 或者以停止所有当前已经启动的传输间隙样式 序列的方式， 执行停止传输间隙样式序列的操作。
2、根据权利要求 1所述传输间隙样式序列的处理方法，其特征在于， 在执行启动新的传输间隙样式序列的操作之前， 该方法进一步包括： 所述终端和节点 B , 与无线网络控制器 （RNC )预先约定启动压缩 模式的传输间隙样式序列的信息； 或者， RNC向所述终端和节点 B配置 启动压缩模式的传输间隙样式序列的信息；
所述启动压缩模式的传输间隙样式序列的信息包括： 一套或多套传 输间隙样式序列的信息； 其中， 每一套传输间隙样式序列的信息至少包 括： 传输间隙样式序列标识、 传输间隙样式序列测量用途、 传输间隙样 式 1和 /或传输间隙样式 2、 每种传输间隙样式在一个传输间隙样式长度 内提供的传输间隙的信息、 以及传输间隙样式的重复次数。
3、根据权利要求 2所述传输间隙样式序列的处理方法，其特征在于， 该方法进一步包括：
所述 RNC通过无线资源控制（RRC )协议层控制信令向终端配置启 动压缩模式的传输间隙样式序列的信息， 通过节点 B应用部分（NBAP ) 协议层控制信令向节点 B配置传输间隙样式序列的信息。
4、 根据权利要求 1、 2或 3所述传输间隙样式序列的处理方法， 其 特征在于， 该方法进一步包括： 所述终端通过高速专用物理控制信道（ HS-DPCCH )告知所述节点 B, 所述终端和节点 B 以在当前已经启动的传输间隙样式序列上叠加的方 式、 或者以清除所有当前已经启动的传输间隙样式序列的方式， 执行启 动新的传输间隙样式序列的操作； 以停止指定的传输间隙样式序列的方 式、 或者以停止所有当前已经启动的传输间隙样式序列的方式， 执行停 止传输间隙样式序列的操作。
5、 根据权利要求 1、 2或 3所述传输间隙样式序列的处理方法， 其 特征在于， 该方法进一步包括：
所述节点 B通过高速共享控制信道（HS-SCCH )命令告知所述终端， 所述终端和节点 B 以在当前已经启动的传输间隙样式序列上叠加的方 式、 或者以清除所有当前已经启动的传输间隙样式序列的方式， 执行启 动新的传输间隙样式序列的操作； 以停止指定的传输间隙样式序列的方 式、 或者以停止所有当前已经启动的传输间隙样式序列的方式， 执行停 止传输间隙样式序列的操作。
6、 一种传输间隙样式序列的处理系统， 其特征在于， 该系统由终端 和节点 B组成， 所述终端或节点 B, 用于控制传输间隙样式序列的启动， 以在当前已经启动的传输间隙样式序列上叠加的方式、 或者以清除所有 当前已经启动的传输间隙样式序列的方式， 执行启动新的传输间隙样式 序列的操作； 控制传输间隙样式序列的停止， 以停止指定的传输间隙样 式序列的方式、 或者以停止所有当前已经启动的传输间隙样式序列的方 式， 执行停止传输间隙样式序列的操作。
7、根据权利要求 6所述传输间隙样式序列的处理系统，其特征在于， 该系统进一步包括： RNC, 用于与终端和节点 B预先约定启动压缩模式 的传输间隙样式序列的信息； 或者， 向终端和节点 B配置启动压缩模式 的传输间隙样式序列的信息； 所述启动压缩模式的传输间隙样式序列的信息包括： 一套或多套传 输间隙样式序列的信息； 其中， 每一套传输间隙样式序列的信息至少包 括： 传输间隙样式序列标识、 传输间隙样式序列测量用途、 传输间隙样 式 1和 /或传输间隙样式 2、 每种传输间隙样式在一个传输间隙样式长度 内提供的传输间隙的信息、 以及传输间隙样式的重复次数。
8、根据权利要求 7所述传输间隙样式序列的处理系统，其特征在于， 所述 RNC进一步用于， 通过 RRC协议层控制信令向终端配置启动压缩 模式的传输间隙样式序列的信息， 通过 NBAP协议层控制信令向节点 B 配置传输间隙样式序列的信息。
9、 根据权利要求 6、 7或 8所述传输间隙样式序列的处理系统， 其 特征在于， 所述终端进一步用于， 通过 HS-DPCCH告知节点 B , 所述终 端和节点 B以在当前已经启动的传输间隙样式序列上叠加的方式、 或者 以清除所有当前已经启动的传输间隙样式序列的方式， 执行启动新的传 输间隙样式序列的操作； 以停止指定的传输间隙样式序列的方式、 或者 以停止所有当前已经启动的传输间隙样式序列的方式， 执行停止传输间 隙样式序列的操作。
10、 根据权利要求 6、 7或 8所述传输间隙样式序列的处理系统， 其 特征在于， 所述节点 B进一步用于， 通过 HS-SCCH命令告知终端， 所述 终端和节点 B以在当前已经启动的传输间隙样式序列上叠加的方式、 或 者以清除所有当前已经启动的传输间隙样式序列的方式， 执行启动新的 传输间隙样式序列的操作； 以停止指定的传输间隙样式序列的方式、 或 者以停止所有当前已经启动的传输间隙样式序列的方式， 执行停止传输 间隙样式序列的操作。
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