WO2012022172A1 - 调度方法和设备 - Google Patents

调度方法和设备 Download PDF

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Publication number
WO2012022172A1
WO2012022172A1 PCT/CN2011/073882 CN2011073882W WO2012022172A1 WO 2012022172 A1 WO2012022172 A1 WO 2012022172A1 CN 2011073882 W CN2011073882 W CN 2011073882W WO 2012022172 A1 WO2012022172 A1 WO 2012022172A1
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WIPO (PCT)
Prior art keywords
base station
scheduling
scheduling information
temporary
period
Prior art date
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PCT/CN2011/073882
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English (en)
French (fr)
Inventor
邢平平
郭轶
Original Assignee
华为技术有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
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Publication date
Application filed by 华为技术有限公司 filed Critical 华为技术有限公司
Priority to EP11817699.9A priority Critical patent/EP2595449B1/en
Priority to JP2013524338A priority patent/JP5745055B2/ja
Priority to BR112013003538A priority patent/BR112013003538A2/pt
Publication of WO2012022172A1 publication Critical patent/WO2012022172A1/zh
Priority to US13/759,559 priority patent/US9060364B2/en

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Classifications

    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W72/00Local resource management
    • H04W72/04Wireless resource allocation
    • H04W72/044Wireless resource allocation based on the type of the allocated resource
    • H04W72/0446Resources in time domain, e.g. slots or frames
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W72/00Local resource management
    • H04W72/12Wireless traffic scheduling
    • H04W72/1215Wireless traffic scheduling for collaboration of different radio technologies
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W16/00Network planning, e.g. coverage or traffic planning tools; Network deployment, e.g. resource partitioning or cells structures
    • H04W16/14Spectrum sharing arrangements between different networks
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W72/00Local resource management
    • H04W72/50Allocation or scheduling criteria for wireless resources
    • H04W72/54Allocation or scheduling criteria for wireless resources based on quality criteria
    • H04W72/541Allocation or scheduling criteria for wireless resources based on quality criteria using the level of interference

Definitions

  • the present invention claims the priority of the Chinese Patent Application filed on August 16, 2010, the Chinese Patent Application No. CN 201010254226.6, entitled “Scheduling Method and Equipment", the entire contents of which are incorporated herein by reference.
  • TECHNICAL FIELD The present invention relates to the field of mobile communications, and in particular, to a scheduling method and apparatus.
  • BACKGROUND OF THE INVENTION In communication systems, the spectrum is divided into different frequency bands.
  • the Long Term Evolution (LTE) system divides 40 available frequency bands, of which 777MHz to 787 MHz is the number 13 band (abbreviated as band 13) and 746MHz to 756 MHz is the number 14 band (referred to as band 14).
  • 2300 MHz to 2400 MHz is the band number 40 (referred to as band 40).
  • band 40 one of the industrial, scientific, and medical frequency bands (ISM bands) shared by countries is the 2.4 GHz to 2.5 GHz band (referred to as the 2.4 G band), which is adjacent to the band 40 of the LTE system, such as WLAN, Bluetooth, and ZigBee. Wireless networks can operate in this band.
  • the Navigation Satellite Timing And Ranging Global Position System (GPS) system can operate at 1575.42 MHz, which is adjacent to the harmonics of band 13/band 14.
  • GPS Global Position System
  • the signal sent by the UE to the LTE system may interfere with the UE receiving the signals of the foregoing other systems.
  • the signals of the other systems sent by the UE may also interfere with the signal that the UE receives the LTE system.
  • An aspect of the present invention provides a scheduling method, including:
  • the base station in the first system receives a first indication sent by the user equipment UE, where the first indication indicates that there is interference between the first system and the second system;
  • the base station generates temporary scheduling information, and sends the temporary scheduling information to the UE;
  • the base station schedules the UE according to the temporary scheduling information, and the time when the base station schedules the UE according to the temporary scheduling information does not overlap with the time when the UE receives the data from the second system.
  • Another aspect of the present invention provides a scheduling method, including: The user equipment UE sends the first indication and the recommended scheduling information to the base station in the first system, where the first indication indicates that there is interference between the first system and the second system;
  • the UE accepts the scheduling of the base station according to the recommended scheduling information, and receives the data of the second system within a period of time when the base station does not schedule the UE.
  • Another aspect of the present invention provides an apparatus, the apparatus being located in a first system, comprising: a receiving unit, a processing unit, and a transmitting unit, wherein:
  • the receiving unit is configured to receive a first indication sent by the UE, where the first indication indicates that there is interference between the first system and the second system;
  • the processing unit is configured to generate temporary scheduling information, and schedule the UE according to the temporary scheduling information
  • the sending unit is configured to send temporary scheduling information to the UE
  • the processing unit schedules the UE according to the temporary scheduling information and does not overlap with the time when the UE receives the data from the second system.
  • Another aspect of the present invention provides an apparatus comprising a transceiver unit and an execution unit, wherein:
  • the transceiver unit is configured to send the first indication and the recommended scheduling information to the base station in the first system, where the first indication indicates that there is interference between the first system and the second system;
  • the transceiver unit is further configured to receive an acknowledgement message sent by the base station;
  • the executing unit 520 is configured to accept the scheduling of the base station according to the recommended scheduling information, and receive the data of the second system in a period when the base station does not schedule the UE.
  • FIG. 1 is a schematic diagram of a scheduling method according to an embodiment of the present invention
  • FIG. 2 is a schematic diagram of scheduling information provided by an embodiment of the present invention.
  • FIG. 3 is a schematic diagram of a scheduling method according to another embodiment of the present invention.
  • FIG. 4 is a schematic diagram of an apparatus according to another embodiment of the present invention.
  • FIG. 5 is a schematic diagram of an apparatus according to another embodiment of the present invention.
  • the embodiments of the present invention will be clearly and completely described in conjunction with the drawings in the embodiments of the present invention. It is obvious that the described embodiments are only a part of the embodiments of the present invention, instead of All embodiments. All other embodiments obtained by a person of ordinary skill in the art based on the embodiments of the present invention without creative efforts are within the scope of the present invention.
  • the embodiments of the present invention take the UE and the base station in the LTE system as an example, but the names of the systems and devices should not be regarded as limiting the solution.
  • the UE in the embodiments of the present invention may be any device that is scheduled by the first system device, and is not limited to a device that can be used by the user.
  • the base station may be any that has a scheduling function or a scheduling function in the first system.
  • Equipment not limited to base stations.
  • the first system in the embodiments of the present invention may be a scheduling-based system such as an LTE system, an LTE+ system, or the like, and the foregoing embodiments of the present invention may be used as long as the frequency band of the system interferes with the frequency bands of other systems.
  • the method solves the problem that the receiving and receiving devices in the system interfere with each other in the system adjacent to the system and other frequency bands.
  • an embodiment of the present invention provides a method. This embodiment includes the following steps.
  • the UE may determine whether the first system and the second system that are working have interference. If the result of the judgment is that there is interference, S120 is performed. Optionally, if the second system starts to be used or the second system needs to be used (when the second system has not started to be used yet), the UE performs the determination of S110.
  • the first system is an LTE system
  • the UE receives a command for positioning through the GPS system, indicating that the GPS system needs to be used, and the UE determines whether the LTE system and the GPS system may interfere.
  • the first system is a Wireless Local Area Network (WLAN) system. When the UE starts to use the LTE system, the UE determines whether the WLAN system and the LTE system may interfere.
  • WLAN Wireless Local Area Network
  • the UE determines whether there is interference between the LTE system and the second system by comparing whether the working frequency band of the LTE system and the frequency band used by the second system are adjacent, for example, whether the frequency band spacing is less than or equal to a threshold (eg, 100 MHz). If it is adjacent, it is judged that the first system and the second system interfere.
  • the first system and the second system in this case may be referred to as the interference system of the other party.
  • the harmonics of band 13 and band 14 of the LTE system are all adjacent to the frequency band used by the GPS system. Therefore, the LTE band 13 may be referred to as an interference system of the GPS system, and the LTE band 14 may be an interference system of the GPS system, or the GPS system.
  • the band 40 of the LTE system is adjacent to the frequency band used by the WLAN system in the ISM system, and is also adjacent to the Bluetooth (BlueTooth, ISM system).
  • the frequency band used by BT) can be referred to as LTE band 40 and ISM WLAN system as interference systems, and LTE band 40 and ISM BT are mutual interference systems.
  • This embodiment is described by taking the LTE band 13 as the interference system of the GPS system as an example. This embodiment is also applicable to the case where the LTE band 14 is an interference system of the GPS system, and is not separately described.
  • S120. The UE notifies the base station of the determination result.
  • the UE may notify the base station in the LTE system that the UE is serving the UE.
  • the UE sends the first indication that the interference exists to the base station.
  • the first indication occupies 1 bit of information, and when the bit information is 1, it indicates that there is interference; when the bit information is 0, it indicates that there is no interference. Since the division and application of the spectrum in each area is relatively stable, for the base station, the current working frequency band of the LTE system is also known. Therefore, if receiving the first indication indicating that there is interference, the base station can determine that it is for the LTE system.
  • the frequency band in which the current working frequency band generates interference can further determine which system is the interference system according to the corresponding relationship between the frequency band and the system.
  • the base station can determine that the interfered system is a GPS system.
  • the first indication is carried in a Radio Resource Control (RRC) message sent by the UE to the base station. For example, occupying an alternate field or an extension field of an existing User Equipment Information Response (UEInformationResponse) message or by adding a new RRC message.
  • RRC Radio Resource Control
  • the UE sends scheduling information of the interfered system (ie, the GPS system) to the base station.
  • the scheduling information in this step may be carried in the same message as the first indication sent by the UE in S120 (the present step is implemented simultaneously with S120), and may also be carried in a message sent by the UE to the base station before or after S120, for example, RRC. Message.
  • the interference system is a scheduling-based GPS system
  • the UE may acquire scheduling information sent by the system.
  • the GPS system uses a C/A code as a ranging code.
  • the C/A code of the GPS system has an initial receiving time of A and a C/A code receiving interval of 10 ms (as shown in Figure 2, the thin line on the time axis of the GPS system).
  • the C/A code continues.
  • the receiving time is 10ms (as shown in Figure 2, the thick line on the time axis of the GPS system).
  • one frame contains 10 subframes, and the duration of each subframe is lms.
  • the UE converts the scheduling information based on the time of the GPS system (that is, the ranging code format) into the time of the LTE system (ie, the frame and the sub-frame).
  • the frame format is the reference scheduling information so that the base station of the LTE system can read the scheduling information of the GPS system.
  • the UE can convert the C/A code start receiving time of the GPS system into the time of the LTE system, for example, a GPS system.
  • the time A corresponds to the second subframe in the frame numbered 12 in the LTE system
  • the C/A code reception interval is 10 ms
  • the C/A code continuous reception time is 10 ms.
  • the conversion period is 20 ms in the LTE system, and each period is 20 ms.
  • the internal continuous reception time is 10ms (as shown in Figure 2, the thick line on the LTE timeline).
  • the scheduling information sent by the UE to the base station in the LTE system is: 20 (reception period, unit is ms or subframe), 12 and 2 (radio frame number SFN and subframe number of the start reception time), 10 (per Continuous reception time in units of ms or subframes).
  • the UE converts the scheduling information based on the time of the GPS system into the scheduling information based on the absolute time, so that the base station of the LTE system can Read the scheduling information of the GPS system.
  • the UE when the scheduling information of the GPS system is the scheduling information based on the absolute time, the UE directly sends the scheduling information of the GPS system to the base station of the LTE system, thereby reducing the operation of the UE, or using the absolute time as a reference.
  • the scheduling information is converted into scheduling information based on the time of the LTE system, thereby reducing the operations required by the base station to receive scheduling information transmitted by the UE.
  • the above absolute time can also be called public time, and is a time reference shared by each system, for example, in the form of year, month, day, hour, minute, and second.
  • which time is used as the benchmark is specified in the system standard.
  • the base station generates temporary scheduling information, and sends the temporary scheduling information to the UE, where the scheduling performed by the base station indicated by the temporary scheduling information does not conflict with the scheduling of the UE by the GPS system.
  • the temporary scheduling information is carried in an RRC message sent by the base station to the UE.
  • the temporary scheduling information indicates, at which times the base station does not schedule the UE, so that the UE uses other systems at the moment.
  • the temporary scheduling information includes a scheduling period, a starting time in which the base station does not schedule the UE in one scheduling period (which may be simply referred to as a starting time of stopping the scheduling of the UE), and a duration in which the base station does not schedule the UE in a scheduling period (may be referred to as stopping Schedule the duration of the UE).
  • the base station may schedule the UE for a period of time other than the duration in which the UE is stopped.
  • the temporary scheduling information includes a scheduling period, a start time of the UE not scheduling the UE in a scheduling period (which may be simply referred to as a start time of stopping the scheduling of the UE), and an ending time of the UE not scheduling the UE in a scheduling period (may be referred to as Stop scheduling the end time of the UE).
  • the temporary scheduling information does not directly indicate the time at which the base station does not perform scheduling on the UE, but indicates, at which time, the base station performs scheduling on the UE, and can also facilitate the UE to determine, at which time, the base station does not schedule the UE during the scheduling period. And use other systems at this time.
  • the temporary scheduling information includes a scheduling period, a starting time of the base station scheduling UE in one scheduling period, and a duration of scheduling the UE by the base station in one scheduling period.
  • the temporary scheduling information includes a scheduling period, a start time and an ending time of the base station scheduling the UE in one scheduling period. It should be noted that, regardless of whether the base station indicates to the UE whether to schedule the UE or not to schedule the UE, the reason why the base station can play the same role is that one scheduling period can be divided into the base station may be allowed or allowed to schedule the UE.
  • the time period (referred to as the first time period) and the time period when the base station is not allowed or scheduled to be scheduled for the UE (referred to as the second time period).
  • the UE can distinguish as long as the base station can indicate any two of the start time, the end time, and the duration of the first time period, or any two of the start time, the end time, and the duration of the second time period.
  • the base station does not schedule the UE (ie, the second time period)
  • the base station can learn, according to the received first indication and the scheduling information sent by the UE, how the GPS system is the interfered system, and how the GPS system will schedule the UE. Of course, the base station can also consider that the scheduling information sent by the UE is how the UE proposes to receive from the GPS system. The data.
  • the base station implements the temporary scheduling information by modifying the scheduling information sent by the UE. For example, the base station modifies the scheduling information sent by the UE according to the current service condition of the UE and/or the current resource scheduling situation of the base station, and then the modified The scheduling information is sent to the UE as temporary scheduling information.
  • the embodiments of the present invention adopt a convenient description of "A and/or B", including the following three cases: (1) A ; (2) B; or (3) A and B.
  • the current service condition of the UE is to use the VoIP service, and the base station performs semi-persistent scheduling on the UE. It is assumed that every 20 ms is one period, and the UE receives or sends VoIP service data in a specific subframe in each period, the specific subframe.
  • the time period in which the UE can receive data from the GPS system according to the scheduling information of the GPS system overlaps, that is, the scheduling of the UE by the base station and
  • the GPS system conflicts with the scheduling of the UE: If the UE is semi-statically scheduled to the UE, the UE should send or receive LTE system data at a certain time corresponding to the LTE system in the specific subframe; Information, the UE should receive data from the GPS system in this particular subframe, but not transmit or receive LTE data. Therefore, the base station needs to modify the scheduling information sent by the UE, or reconfigure the semi-persistent scheduling that is being performed on the UE.
  • the base station modifies the start time "SFN of 12" of the UE that stops scheduling the UE from the scheduling information sent by the UE to "SFN is 13", that is, the temporary scheduling performed by the base station on the UE includes: the first frame from the SFN of 13 Start with 2 subframes, last 10 subframes (that is, 10 ms), do not schedule the UE, and the scheduling period is 20 ms (equivalent to a time interval of 10 ms between two non-scheduled UEs), thereby staggering the semi-static scheduling of the base station to the UE.
  • the scheduling of the UE by the GPS system.
  • the temporary scheduling information sent by the base station to the UE may be 20 (scheduling period, the unit is ms or subframe), 13 and 2 (the SFN and the subframe number of the start time of stopping the scheduling of the UE), 10 (per cycle The duration of the UE is not scheduled, in ms or subframes.
  • the start time of the UE may be scheduled in the scheduling information sent by the base station to the UE, "SFN is 12", that is, the temporary scheduling performed by the base station on the UE includes: starting from the second subframe in the frame with the SFN of 12, lasting 10 subframes (ie 10ms) may schedule the UE, the scheduling period is 20ms (equivalent to the time period of two possible UE scheduling) The time interval between them is 10 ms), thereby staggering the semi-static scheduling of the base station to the UE from the scheduling of the UE by the GPS system.
  • the temporary scheduling information sent by the base station to the UE may be 20 (scheduling period, the unit is ms or subframe), 12 and 2 (the SFN and the subframe number of the start time of the UE may be scheduled), 10 (per cycle The duration of the UE may be scheduled, in ms or subframes.
  • the resource scheduling situation of other UEs currently controlled by the base station is that the base station is performing temporary scheduling on some other UEs (for example, scheduling the UEs according to certain temporary scheduling information due to inter-system interference) and sending the UE to the UE.
  • the GPS system of the base station is consistent with the scheduling of the UE.
  • the base station may not schedule any UE or the number of schedulable UEs is significantly reduced during a certain period of time, and the resources in this period are not utilized or the utilization rate is low, and resource waste occurs. Therefore, the base station may shift the temporary scheduling of different UEs in time. For example, in the temporary scheduling information generated by the base station for different UEs, the start time of stopping the scheduling of the UEs is different, thereby avoiding resource waste and maximizing the utilization of the cell resources. Chemical.
  • the base station first modifies the scheduling information sent by the UE according to the current service condition of the UE (referred to as the first modification for short), and then modifies (for the second modification) the scheduling information after the first modification according to the current resource scheduling situation of the base station. And transmitting the second modified scheduling information to the UE as temporary scheduling information.
  • the base station schedules the UE according to the temporary scheduling information.
  • the data of the GPS system may be received during a period in which the base station indicated by the temporary scheduling information does not schedule the UE.
  • the UE starts from the second subframe in the frame with the SFN of 13, and receives data of the GPS system for 10 subframes, for example, receiving a ranging code such as a C/A code of the GPS system or a P code, and receiving the navigation of the GPS system. Messages, etc.
  • the UE receives the data of the GPS system in a cycle of 20 ms.
  • the UE may send a first indication indicating that there is no interference to the base station (S160), the base station may stop using the temporary scheduling information, and notify the UE that the temporary scheduling information is invalid (S170).
  • the base station instead uses the prior art to schedule the UE, and is no longer affected by other system scheduling UEs.
  • the base station in this embodiment is a base station that is serving the UE in the LTE system. If the UE is to be handed over from the base station to the target base station, the base station may send the first indication sent by the UE and the scheduling information of the GPS system. The signal is sent to the target base station, so that the target base station learns that there is an interference system, and may generate temporary scheduling information for the UE.
  • the base station in the LTE system generates temporary scheduling information according to the information sent by the UE, which can prevent the LTE system and other systems in the vicinity of the frequency band (such as the GPS system) from colliding with the UE, and solve the problem that the UE is adjacent to the two frequency bands.
  • the problem of mutual interference between sending and receiving messages in the system As shown in Figure 3, another embodiment of the present invention provides a method. The method includes the following steps.
  • S310 similar to S110.
  • the difference is that the LTE band 40 and the ISM WLAN system are interfering with each other as an example. This embodiment is also applicable to the case where the LTE band 40 and the ISM BT are mutually interfering systems, and are not separately described.
  • S320 similar to S120. The difference is that the LTE band 40 and the ISM system interfere with each other including:
  • the LTE band 40 and the ISM WLAN system are mutually interfering systems, and the LTE band 40 and the ISM BT are mutually interfering systems. Therefore, if the UE determines that there is interference between the ISM WLAN system or the ISM BT and the LTE band 40, the UE may send a second indication to the base station in addition to sending the first indication, where the second indication is used to indicate Whether the LTE system has interference is the ISM WLAN system or the ISM BT.
  • the second indication occupies 1 bit of information, and when the bit information is 1, the interference system is an ISM WLAN system; when the bit information is 0, the interference system is an ISM BT.
  • the second indication is carried in the same message as the first indication to reduce occupation of air interface resources.
  • the base station generates temporary scheduling information, and sends the temporary scheduling information to the UE, where the temporary scheduling information indicates, at which times the base station does not perform scheduling on the UE, so that the UE uses other systems at the moment.
  • the temporary scheduling information includes a scheduling period, a starting time in which the base station does not schedule the UE in one scheduling period (which may be simply referred to as a starting time of stopping the scheduling of the UE), and a duration in which the base station does not schedule the UE in a scheduling period (may be referred to as stopping Schedule the duration of the UE).
  • the temporary scheduling information includes a scheduling period, a start time of the UE not scheduling the UE in a scheduling period (which may be simply referred to as a start time of stopping the scheduling of the UE), and an ending time of the UE not scheduling the UE in a scheduling period (may be referred to as Stop scheduling the end time of the UE).
  • the temporary scheduling information includes a scheduling period, a starting time of the UE scheduled by the base station in one scheduling period, and a duration of scheduling the UE by the base station in one scheduling period.
  • the temporary scheduling information includes a scheduling period, a start time and an ending time of the base station scheduling the UE in one scheduling period.
  • the temporary scheduling information is carried in an RRC message sent by the base station to the UE.
  • the interference system is a contention-based ISM WLAN system
  • the UE may generate the recommended scheduling information and send the information to the base station, where the recommended scheduling information indicates how the UE expects the base station to schedule the UE, so that the UE can use the ISM WLAN system during the period without the base station scheduling, that is, communicate with the ISM WLAN system. , including transmission of uplink or downlink data, signaling interaction, and the like.
  • the UE generates the recommended scheduling information according to the LTE system service usage situation of the UE and other system service usage conditions, and recommends that the base station allow the UE to receive the data period of the data from the ISM WLAN system.
  • the UE uses the WLAN system for IP network telephone (eg, skype) telephone, and uses the LTE system for data download.
  • IP network telephone eg, skype
  • the UE may suggest that the base station periodically not schedule the UE, so that the UE uses the IP network telephone telephone service of the WLAN system at the time when the base station does not schedule the UE.
  • the UE proposes that the scheduling performed by the base station is: The base station starts from the sixth subframe in the frame with the SFN of 15, and does not schedule the UE for 5 subframes (SP5ms), and the scheduling period is 100 ms (equivalent to two UEs not scheduling the UE). The time interval between time periods is 50ms).
  • the recommended scheduling information sent by the UE to the base station may be: 100 (scheduling period, the unit is ms or subframe), 15 and 6 (the SFN and the subframe number of the start time of stopping the scheduling of the UE), 5 (per cycle The duration of the UE is not scheduled, in ms or sub-frames.
  • the base station can learn that the ISM WLAN system is the interference system according to the received first indication, the second indication, and the recommended scheduling information, and learn how the UE proposes the base station to schedule the UE.
  • the base station implements the temporary scheduling information by modifying the scheduling information sent by the UE. For example, the base station modifies the recommended scheduling information sent by the UE according to the current service situation of the UE and/or the resource scheduling situation of the base station, and then the modified scheduling information is modified.
  • the scheduling information is sent to the UE as temporary scheduling information. For example, the current service condition of the UE is to use the VoIP service, and the base station performs semi-persistent scheduling on the UE.
  • the base station needs to modify the recommended scheduling information sent by the UE. Or, reconfigure the semi-persistent scheduling being performed on the UE.
  • the base station modifies the start time "SFN of 15" of the UE to stop scheduling the UE to be "SFN is 16", that is, the temporary scheduling performed by the base station on the UE includes: the sixth subframe from the frame with the SFN being 16 Start, 5 subframes (SP5ms) are not scheduled, and the scheduling period is 100ms (equivalent to 50ms between two periods of non-scheduled UEs), so that the semi-static scheduling of the base station to the UE is staggered and the UE receives the ISM from the ISM.
  • the time period of the data of the WLAN system is provided.
  • the temporary scheduling information sent by the base station to the UE may be 100 (scheduling period, the unit is ms or subframe), 16 and 6 (the SFN and the subframe number of the start time of stopping the scheduling of the UE), 5 (per cycle The duration of the UE is not scheduled, in ms or subframes.
  • the current resource scheduling situation of the base station is that the base station is performing temporary scheduling on some other UEs (for example, scheduling the UEs according to certain temporary scheduling information due to inter-system interference) and the recommended scheduling information sent by the UE to the base station is consistent.
  • the base station may not schedule any UE or the schedulable UE is significantly reduced in a certain period of time, and the resources in this period are not utilized or the utilization rate is low, and resource waste occurs.
  • the UE in this embodiment is the UE11, and the base station is performing temporary scheduling on the other 10 UEs (ie, UE1 to UE10), wherein the temporary scheduling of the UE1 to the UE1 is:
  • the start time of stopping the scheduling of the UE1 is SFN1.
  • the sixth subframe in the frame has a duration of 5 ms and a scheduling period of 30 ms.
  • the temporary scheduling of the base station to the UE 2 is: stopping the scheduling start time SFN of the UE 2
  • the sixth subframe in the frame of 31 has a duration of 5 ms and a scheduling period of 30 ms, ..., and the temporary scheduling of the base station to the UE 10 is:
  • the start time of stopping the scheduling of the UE 10 is the sixth in the frame with the SFN of 271.
  • the time period is:
  • the initial reception time is the sixth subframe in the frame with the SFN being 31, the continuous reception time is 5 ms, and the period is 30 ms, that is, the UE recommends that the base station Do not schedule UEs during the time period, and there will be cases where multiple UEs in the same location cannot be scheduled.
  • the base station avoids the sixth subframe with the SFN being 31, and the subsequent 5 ms is not used by any UE, which causes the resource to be wasted, and the base station can perform discrete allocation on the remaining UEs.
  • the UE 11 performs the following temporary scheduling:
  • the base station starts from the sixth subframe in the frame with the SFN of 301, and does not schedule the UE for 11 subframes (SP5ms).
  • the scheduling period is 30 ms.
  • the base station modifies the recommendation sent by the UE.
  • Scheduling information, the generated temporary scheduling information is: 30 (scheduling period, the unit is ms or subframe), 301 and 6 (the SFN and the subframe number of the start time of stopping the scheduling of the UE), 5 (the UE is not scheduled in each period)
  • the duration in ms or subframes).
  • the base station may generate the temporary scheduling information after the ISM WLAN system is the interference system according to the received first indication and the second indication.
  • temporary scheduling information is generated for the UE according to the current service situation of the UE and/or the resource scheduling situation of the base station.
  • the current service condition of the UE is to use the VoIP service, and the base station performs semi-persistent scheduling on the UE, assuming each
  • the 20ms is a period, and the UE receives or transmits VoIP service data in a specific subframe in each period.
  • the base station considers to avoid affecting the semi-persistent scheduling period as much as possible, so the base station avoids the semi-persistent scheduling period as much as possible.
  • the current semi-static scheduling period starts with a SFN of 15 frames in the second subframe, and the period is 20 ms, allowing the UE to send and receive data for a duration of 1 ms.
  • the temporary scheduling that the base station can perform on the UE includes: starting from the sixth subframe in the frame with the SFN being 16 and continuing for 5 subframes (SP5ms) without scheduling the UE, and the scheduling period is 100 ms, which is equivalent to two periods in which the UE is not scheduled.
  • the time interval between the two is 50 ms, so that the temporary scheduling of the UE to the UE is staggered by the current semi-static scheduling for the UE.
  • the temporary scheduling information sent by the base station to the UE may be 100 (scheduling period, the unit is ms or subframe), 16 and 6 (the SFN and the subframe number of the start time of stopping the scheduling of the UE), 5 (each time is not scheduled)
  • the current resource scheduling situation of the base station is that the base station is performing temporary scheduling on some other UEs.
  • the UE in this embodiment is the UE11, and the base station is temporarily scheduling the other 10 UEs (ie, UE1 to UE10), where The temporary scheduling of the base station to the UE 1 is: stopping the scheduled UE 1 starting time is the sixth subframe in the frame with the SFN being 1, the duration is 5 ms, and the scheduling period is 30 ms.
  • the temporary scheduling of the base station to the UE 2 is: stopping the scheduling of the sixth subframe in the frame with the start time SFN of the UE 2 being 2, the duration is 5 ms, the scheduling period is 30 ms, ..., the temporary scheduling of the base station to the UE 10 is :
  • the start time of stopping scheduling UE N is the sixth subframe in the frame with SFN 271, and the duration is 5ms, scheduling The period is 30ms. If there are other UEs with the same interference, if the base station repeatedly allocates the same temporary scheduling of the UE, it will inevitably generate a temporary scheduling period in which only a small number of UEs can be scheduled. In order to avoid resource waste, for example, the base station avoids SFN of 271.
  • the 6th subframe, and its subsequent 5ms are repeatedly allocated, so that the resource is wasted without being used by any UE, and the base station can perform discrete allocation to the remaining UEs.
  • the UE 11 performs the following temporary scheduling:
  • the base station is 301 from the SFN.
  • the 6th subframe in the frame starts, 5 subframes (SP5ms) are not scheduled, and the scheduling period is 30ms.
  • the temporary scheduling information generated by the base station is: 30 (scheduling period, unit is ms or subframe) , 11 and 6 (the SFN and subframe number of the start time for stopping the scheduling of the UE), 5 (the duration of the UE is not scheduled in each period, the unit is ms or subframe).
  • the temporary scheduling performed by the base station on the UE is: The base station starts from the second subframe in the frame with the SFN being 12, and the subframe is not scheduled for 5 subframes (SP5ms), and the scheduling period is 100 ms (equivalent to two non-scheduled times) The interval between UE time periods is 50 ms).
  • the temporary scheduling information is 100 (scheduling period, the unit is ms or subframe), 12 and 8 (the SFN and the subframe number of the start time of stopping the scheduling of the UE), 5 (the duration of not scheduling the UE in each period) , the unit is ms or subframe).
  • the current service condition of the UE is that the semi-persistent scheduling receiving service is not used, and the resource scheduling situation of the base station is that the other UEs in the base station are not temporarily scheduled, and the base station may preferentially adopt the recommended scheduling information sent by the UE. If the base station does not receive the recommended scheduling information, the temporary scheduling information may be randomly generated, and the UE is notified to send or receive data of other systems during the period when the base station indicated by the temporary scheduling information does not schedule the UE.
  • the base station first modifies the scheduling information sent by the UE according to the current service condition of the UE (referred to as the first modification for short), and then modifies (for the second modification) the scheduling information after the first modification according to the current resource scheduling situation of the base station. And transmitting the second modified scheduling information to the UE as temporary scheduling information.
  • the base station schedules the UE according to the temporary scheduling information.
  • the ISM WLAN system may perform uplink or downlink communication, including data uploading and downloading, signaling interaction, and the like.
  • the UE may send a first indication indicating that there is no interference to the base station (S350), the base station may stop using the temporary scheduling information, and notify the UE that the temporary scheduling information is invalid (S360).
  • the base station instead uses the prior art to schedule the UE, and is no longer affected by other system scheduling UEs.
  • the base station in this embodiment is a base station that is serving the UE in the LTE system.
  • the base station may send the first indication and the second indication sent by the UE to The target base station, so that the target base station learns that there is an interference system, and may generate temporary scheduling information for the UE.
  • the base station in the LTE system generates temporary scheduling information according to the information sent by the UE, which can prevent the LTE system from colliding with the UE and the UE using other frequency bands adjacent to the system (such as the ISM system), and the UE is resolved in the two.
  • Another embodiment of the present invention provides a method, which is different from the method provided in the embodiment shown in FIG.
  • the UE in that the UE generates the recommended scheduling information and sends the information to the base station, and the base station sends an acknowledgement message to the UE to confirm It is recommended that the scheduling information be accepted, and then the base station schedules the UE according to the suggested scheduling information. That is, the base station accepts the proposal of the UE for the UE to schedule the UE without generating the temporary scheduling information, and may also consider that the base station uses the recommended scheduling information sent by the UE as the temporary scheduling information.
  • the acknowledgment message about the recommended scheduling information sent by the base station to the UE may be an ACK message, or another message including an acknowledgment field, where the acknowledgment message may simultaneously confirm the correct reception of the first indication and the recommended scheduling information.
  • This embodiment can prevent the UE from transmitting and receiving messages to and from each other in the system in the two frequency bands, and can also reduce the internal operations of the base station in the LTE system, for example, the operation of generating temporary scheduling information, and facilitate the UE to coordinate the use of different systems.
  • another embodiment of the present invention provides an apparatus 40, which may be used to implement an action performed by a base station in a scheduling method provided by other embodiments of the present invention.
  • the device 40 is located in the first system and includes a receiving unit 410, a processing unit 420, and a transmitting unit 430.
  • the receiving unit 410 is configured to receive a first indication sent by the UE, where the first indication indicates that there is interference between the first system and the second system.
  • the processing unit 420 is configured to generate temporary scheduling information, and schedule the UE according to the temporary scheduling information.
  • the sending unit 430 is configured to send temporary scheduling information to the UE.
  • the time when the processing unit 420 schedules the UE according to the temporary scheduling information does not overlap with the time when the UE receives the data from the second system.
  • the first system is an LTE system, and a device that provides services for the UE, for example, a base station in the LTE system that is providing services for the UE.
  • the first system is the LTE band 40
  • the second system is the ISM WLAN system or the ISM BT system.
  • the processing unit 420 is specifically configured to: according to the current service situation of the UE and/or the current resource scheduling situation of the base station, for example, Resource scheduling of other UEs) Generate temporary scheduling information.
  • the receiving unit 410 is further configured to receive the recommended scheduling information sent by the UE, where the processing unit 420 is specifically configured to: according to the current service situation of the UE and/or the current resource scheduling situation of the base station, for example, the resource scheduling situation of other UEs controlled by the UE.
  • the proposed scheduling information is modified, and the modified scheduling information is temporary scheduling information, where the recommended scheduling information indicates that the UE proposes how the base station schedules the UE.
  • the processing unit is further configured to send the first indication to the target base station before the UE switches to the target base station; where the target base station is in the first system.
  • the first system as the LTE band 13 or the LTE band 14
  • the second system is a GPS system as an example
  • the receiving unit 410 is further configured to receive scheduling information of the second system sent by the UE, and the scheduling information of the second system is used in the second system.
  • the UE is scheduled.
  • the processing unit 420 is specifically configured to generate temporary scheduling information according to the scheduling information of the second system. It should be noted that the processing unit 420 schedules the UE according to the temporary scheduling information and does not overlap with the time when the UE receives the data from the second system.
  • the processing unit 420 schedules the UE time according to the temporary scheduling information and the second system.
  • the time of scheduling the UE according to the scheduling information of the second system does not overlap.
  • the scheduling information of the second system is carried in the same RRC message as the first indication, or the receiving unit 410 is further configured to receive a second indication indicating a type of the second system, where the The scheduling information of the second system, the first indication and the second indication are carried in the same radio resource control RRC message.
  • the UE after receiving the temporary scheduling information sent by the receiving unit 410, the UE receives the scheduling performed by the second system according to the scheduling information of the second system, for example, receiving and receiving data of the second system, in a period in which the base station does not schedule the UE.
  • the processing unit 430 generates the temporary scheduling information according to the scheduling information of the second system, including: modifying the scheduling information sent by the UE according to the current service situation of the UE and/or the current resource scheduling situation of the base station, and modifying the scheduling information. As temporary scheduling information.
  • the scheduling information of the second system is scheduling information that is generated by the UE conversion and is based on the time of the first system, where the converting includes converting the scheduling information from the time of the second system to the first
  • the time of a system is the benchmark.
  • the sending unit 420 is further configured to send the first indication and the scheduling information of the second system to the target base station before the UE switches to the target base station, where the target base station is in the first a system.
  • the receiving unit 410 is further configured to receive, by the UE, a first indication that the first system and the second system do not have interference, and the processing unit 420 is further configured to stop scheduling the UE according to the temporary scheduling information.
  • the processing unit 420 is further configured to notify the UE that the temporary scheduling information is invalid.
  • the temporary scheduling information in this embodiment includes: a scheduling period, a starting time in which the base station does not schedule the UE in one scheduling period, and a duration in which the base station does not schedule the UE in a scheduling period; or, a scheduling period, a scheduling period
  • the inner base station does not schedule the start time and end time of the UE.
  • the apparatus provided in this embodiment can prevent the UE from transmitting and receiving messages to and from each other in a system in which two frequency bands are adjacent.
  • another embodiment of the present invention provides an apparatus 50, which may be used to implement an action performed by a UE in a scheduling method provided by other embodiments of the present invention.
  • the device 50 includes a transceiver unit 510 and a Row unit 520.
  • the transceiver unit 510 is configured to send the first indication and the recommended scheduling information to the base station in the first system, where the first indication indicates that there is interference between the first system and the second system.
  • the transceiver unit 510 is further configured to receive an acknowledgement message sent by the base station.
  • the executing unit 520 is configured to accept scheduling of the base station according to the recommended scheduling information, and receive data of the second system within a period in which the base station does not schedule the UE.
  • the confirmation message indicates confirmation of the first indication and the suggested scheduling information, for example, confirming that the notification is correctly received and/or accepted.
  • the first system is an LTE band 40 system
  • the second system is an ISM WLAN system or an ISM BT system.
  • the executing unit 520 is further configured to: before the sending and receiving unit 510 sends the first indication to the base station in the first system, determine the Whether there is interference between the first system and the second system; if there is interference between the first system and the second system, the trigger transceiver unit 510 sends the first indication to the base station.
  • the transceiver unit 510 is further configured to: when the base station learns that the temporary scheduling information is invalid, and trigger the executing unit 520 to stop accepting the base station scheduling according to the temporary scheduling information.
  • the trigger transceiver unit 510 notifies the base station that the first system and the second system do not have interference.
  • the temporary scheduling information in this embodiment includes: a scheduling period, a starting time in which the base station does not schedule the UE in one scheduling period, and a duration in which the base station does not schedule the UE in a scheduling period; or, a scheduling period, a scheduling period
  • the inner base station does not schedule the start time and end time of the UE.
  • the apparatus provided in this embodiment does not interfere with each other in transmitting and receiving messages in a system in which two frequency bands are adjacent.
  • the program may be configured as follows: the base station in the first system receives a first indication sent by the user equipment UE, the first indication indicates that there is interference between the first system and the second system; and the base station generates temporary scheduling information, And sending the temporary scheduling information to the UE; the base station scheduling the UE according to the temporary scheduling information, and the time when the base station schedules the UE according to the temporary scheduling information does not overlap with the time when the UE receives the data from the second system.
  • the program instructing the base station or part of the hardware therein to complete the above steps the UE can be prevented from interfering with each other in the systems adjacent to the two frequency bands.
  • the program may be configured to: send a first indication and a suggested scheduling information to a base station in the first system, where the first indication indicates that there is interference between the first system and the second system; Acknowledgement message; the UE accepts scheduling of the base station according to the recommended scheduling information, and is within a period in which the base station does not schedule the UE Receive data from the second system.
  • the program instructing the UE or part of the hardware to complete the above steps the UE can be prevented from interfering with each other in the system in which the two frequency bands are adjacent.

Description

调度方法和设备 本申请要求于 2010年 8月 16日提交中国专利局、 申请号为 CN 201010254226.6、 发明名称为"调度方法和设备"的中国专利申请的优先权, 其全部内容通过引用结合在本 申请中。 技术领域 本发明涉及移动通信领域, 特别是涉及调度方法和设备。 发明背景 在通信系统中, 频谱被划分成不同的频段。 例如, 长期演进(Long Term Evolution, LTE) 系统共划分了 40个可用频段, 其中, 777MHz至 787 MHz为编号 13的频段 (简 称 band 13 ),746MHz至 756 MHz为编号 14的频段(简称 band 14), 2300 MHz至 2400MHz 为编号 40的频段 (简称 band 40)。 又如, 各国共用的工业、 科学和医用频段 (ISM频 段)之一为 2.4GHz至 2.5GHz的频段 (简称 2.4G频段), 该频段与 LTE系统的 band 40 邻近, 无线局域网、 蓝牙和 ZigBee 等无线网络均可工作在该频段上。 又如, 全球定位 (Navigation Satellite Timing And Ranging Global Position System, GPS )系统可以工作在 1575.42MHz, 该频段的与 band 13/band 14的谐波邻近。
现有技术中, 如果用户设备(User Equipment, UE) 同时在某频段上使用 LTE系统 和在该频段邻近的频段上使用其他系统, 则 UE发送 LTE系统的信号会干扰 UE接收上 述其他系统的信号, UE发送的上述其他系统的信号也会干扰 UE接收 LTE系统的信号。 发明内容
本发明的一方面提供一种调度方法, 包括:
第一系统中的基站接收用户设备 UE发送的第一指示, 所述第一指示表示第一系统 与第二系统间存在干扰;
所述基站生成临时调度信息, 并发送所述临时调度信息给 UE;
所述基站按照所述临时调度信息调度 UE, 基站按照所述临时调度信息调度 UE的时 间与 UE接收来自第二系统的数据的时间不重叠。
本发明的另一方面提供一种调度方法, 包括: 用户设备 UE向第一系统中的基站发送第一指示和建议调度信息, 所述第一指示表 示第一系统与第二系统间存在干扰;
所述 UE接收基站发送的确认消息;
所述 UE按照所述建议调度信息接受基站的调度, 并在基站未调度 UE的时段内接收 第二系统的数据。
本发明的另一方面提供一种装置, 该装置位于第一系统中, 包括: 接收单元、 处理 单元和发送单元, 其中:
接收单元用于接收 UE发送的第一指示, 所述第一指示表示第一系统与第二系统间 存在干扰;
处理单元用于生成临时调度信息, 并按照临时调度信息调度 UE;
发送单元用于将临时调度信息发送给 UE;
其中, 处理单元按照临时调度信息调度 UE的时间与 UE接收来自第二系统的数据的 时间不重叠。
本发明的另一方面提供一种装置, 包括收发单元和执行单元, 其中:
收发单元用于向第一系统中的基站发送第一指示和建议调度信息,所述第一指示表 示第一系统与第二系统间存在干扰;
收发单元还用于接收基站发送的确认消息;
执行单元 520用于按照所述建议调度信息接受基站的调度, 并在基站未调度 UE的时 段内接收第二系统的数据。
应用本发明各实施例提供的方法或设备, 可以避免第一系统对 UE的调度和 UE使用 与第一系统频段邻近的第二系统发生冲突, 例如 UE接收或发送第二系统的数据或消息, 从而解决 UE在两个频段邻近的系统中收发消息相互干扰的问题。 附图简要说明 图 1为本发明的一个实施例提供的调度方法的示意图;
图 2为本发明的一个实施例提供的调度信息示意图;
图 3为本发明的另一个实施例提供的调度方法的示意图;
图 4为本发明的另一个实施例提供的设备的示意图;
图 5为本发明的另一个实施例提供的设备的示意图。 实施本发明的方式 下面将结合本发明实施例中的附图, 对本发明实施例中的技术方案进行清楚、 完整 地描述, 显然, 所描述的实施例仅是本发明的一部分实施例, 而不是全部的实施例。 基 于本发明中的实施例,本领域普通技术人员在没有做出创造性劳动前提下所获得的所有 其他实施例, 都属于本发明保护的范围。 为方便描述, 本发明各实施例以 LTE系统中的 UE和基站作为举例, 但系统和设备的 名称不应该视为对方案的限定。 实际上, 本发明各实施例中的 UE可以是接受第一系统 设备调度的任何设备, 而不限于用户可使用的设备, 基站可以是对第一系统中具备调度 功能或起到调度作用的任何设备, 而不限于基站。 此外, 本发明各实施例中的第一系统 可以是 LTE系统、 LTE+系统等各种基于调度的系统,只要该系统的频段与其他系统的频 段存在干扰, 就可以采用本发明各实施例提供的方法来解决该系统中接受调度的设备在 该系统和其他频段邻近的系统中收发消息相互干扰的问题。 如图 1所示, 本发明的一个实施例提供一种方法。 该实施例包括如下步骤。
S110、 UE可以判断正在工作的第一系统与第二系统是否存在干扰。 如果判断结果 为存在干扰, 执行 S120。 可选的, 如果第二系统开始被使用或者第二系统需要被使用 (此时第二系统尚未开 始被使用), 则 UE进行 S110的判断。例如, 第一系统为 LTE系统, UE接收到的通过 GPS 系统进行定位的命令, 说明 GPS系统需要被使用, 则 UE判断 LTE系统与 GPS系统是否会 发生干扰。又如, 第一系统为无线局域网(Wireless Local Area Network, WLAN)系统, UE开始使用 LTE系统时, UE判断 WLAN系统和 LTE系统是否会发生干扰。 可选的, UE通过比较 LTE系统的工作频段和第二系统使用的频段是否邻近, 例如频 段相距是否小于等于门限值 (如 100MHz) , 来判断 LTE系统与第二系统是否存在干扰。 如果邻近, 则判断结果第一系统与第二系统会发生干扰。 这种情况下的第一系统与第二 系统可称为对方的干扰系统。 例如, LTE系统的 band 13和 band 14的谐波都邻近 GPS系统使用的频段, 因此, 可简 称为 LTE band 13为 GPS系统的干扰系统, LTE band 14为 GPS系统的干扰系统, 或者, GPS系统为被 LTE band 13或 LTE band 14干扰的系统, 简称被干扰系统。又如, LTE系统 的 band 40邻近ISM系统中WLAN系统使用的频段, 还邻近 ISM系统中蓝牙 (BlueTooth, BT)使用的频段,因此,可简称为 LTE band 40与 ISM WLAN系统互为干扰系统, LTE band 40与 ISM BT互为干扰系统。 本实施例以 LTE band 13为 GPS系统的干扰系统为例进行说明, 本实施例还适用于 LTE band 14为 GPS系统的干扰系统的情况, 不再单独描述。 S120、 UE将判断结果通知给基站。 其中, UE可以将判断结果通知给 LTE系统中正在为 UE提供服务的基站。 可选的, UE通过发送表示存在干扰的第一指示给基站。 例如, 该第一指示占用 1比 特信息, 该比特信息为 1时, 表示存在干扰; 该比特信息为 0时, 表示不存在干扰。 由于 各区域中如何划分和应用频谱是比较稳定的, 对于基站来说, LTE系统的当前工作频段 也是可知的, 因此, 如果接收到表示存在干扰的第一指示, 基站能够确定是对 LTE系统 的当前工作频段产生干扰的频段,还可以进而根据频段与系统的对应关系来确定哪个系 统为干扰系统。例如, LTE的工作频段为 band 13或 band 14,也即 UE工作在 band 13或 band 14上, 则基站接收到表示存在干扰的第一指示时, 可以确定被干扰系统为 GPS系统。 可选的, 第一指示携带在 UE发送给基站的无线资源控制 (Radio Resource Control, RRC) 消息中。 例如占用现有的用户设备信息响应 (UEInformationResponse) 消息的备 用字段或扩展字段或通过新增 RRC消息实现。
S130、 UE将被干扰系统 (即 GPS系统) 的调度信息发送给上述基站。 本步骤中的调度信息可以与 S120中 UE发送的第一指示携带在同一消息中 (则本步 骤与 S120同时被实现) , 也可以携带在 S120之前或之后 UE发送给基站的消息中, 例如 RRC消息。 干扰系统为基于调度的 GPS系统时, UE可以获取到该系统发送的调度信息。 例如, GPS系统采用 C/A码作为测距码。 如图 2所示, GPS系统的 C/A码, 起始接收时间为 A, C/A码接收间隔为 10ms (如图 2所示 GPS系统时间轴上的细线) , C/A码持续接收时间为 10ms (如图 2所示 GPS系统时间轴上的粗线) , LTE系统中 1帧包含 10子帧, 每个子帧的 时长为 lms。可选的, GPS系统与 LTE (如 band 13 )系统的时间基准不同时, UE将以 GPS 系统的时间 (即测距码形式) 为基准的调度信息转换为以 LTE系统的时间 (即帧和子帧 形式) 为基准的调度信息, 以使 LTE系统的基站能够读懂 GPS系统的调度信息。 如图 2 所示, UE可以将 GPS系统的 C/A码起始接收时间转换成 LTE系统的时间, 例如 GPS系统 的时间 A对应 LTE系统中的编号为 12的帧中第 2个子帧, C/A码接收间隔为 10ms以及 C/A 码持续接收时间为 10ms转换为 LTE系统中接收周期为 20ms,每个周期内持续接收时间为 10ms (如图 2所示 LTE时间轴上的粗线) 。 也就是, UE发送给 LTE系统中的基站的调度 信息为: 20 (接收周期, 单位为 ms或子帧) , 12和 2 (起始接收时间的无线帧号 SFN和 子帧号), 10 (每个周期内持续接收时间, 单位为 ms或子帧)。可选的, GPS系统与 LTE (如 band 13 ) 系统的时间基准不同时, UE将以 GPS系统的时间为基准的调度信息转换 为以绝对时间为基准的调度信息, 以使 LTE系统的基站能够读懂 GPS系统的调度信息。 可选的, GPS系统的调度信息是以绝对时间为基准的调度信息时, UE将 GPS系统的调度 信息直接发送给 LTE系统的基站, 从而减少 UE的操作, 或者, 将以绝对时间为基准的调 度信息转换为以 LTE系统的时间为基准的调度信息,从而减少基站接收 UE发送的调度信 息所需的操作。 上述绝对时间也可称为公共时间, 是各系统共用的时间基准, 例如采用 年月日和时分秒的形式。 可选的, 采用哪种时间为基准在系统标准中规定。
S140、 基站生成临时调度信息, 并将该临时调度信息发送给 UE, 该临时调度信息 所指示的基站对 UE进行的调度与 GPS系统对 UE的调度不冲突。 可选的, 该临时调度信息携带在基站发送给 UE的 RRC消息中。 可选的, 临时调度信息指示基站在哪些时刻对 UE不进行调度, 以便 UE在该时刻使 用其它系统。 例如, 临时调度信息包括调度周期、 一个调度周期内基站不调度 UE的起 始时间 (可简称为停止调度 UE的起始时间) 和一个调度周期内基站不调度 UE的持续时 间 (可简称为停止调度 UE的持续时间) 。 在一个调度周期内, 基站在停止调取 UE的持 续时间之外的时间内, 可以调度 UE。 又如, 临时调度信息包括调度周期、 一个调度周 期内基站不调度 UE的起始时间 (可简称为停止调度 UE的起始时间) 和一个调度周期内 基站不调度 UE的结束时间 (可简称为停止调度 UE的结束时间) 。 可选的, 临时调度信息不直接指示基站在哪些时刻对 UE不进行调度, 而是指示基 站在哪些时刻对 UE进行调度, 也能够起到便于 UE确定调度周期内基站在哪些时刻不对 UE进行调度, 并在该时刻使用其它系统。 例如, 临时调度信息包括调度周期、 一个调 度周期内基站调度 UE的起始时间和一个调度周期内基站调度 UE的持续时间。 又如, 临 时调度信息包括调度周期、 一个调度周期内基站调度 UE的起始时间和结束时间。 需要说明的是, 无论基站向 UE指示的是调度 UE的时刻还是不调度 UE的时刻, 都能 够起到相同作用的原因在于: 一个调度周期可以划分为基站可能或者说被允许调度 UE 的时段 (简称第一时段) 和基站不可能或者说被禁止调度 UE的时段 (简称第二时段) 。 因此, 只要基站能够指示出第一时段的起始时间、 结束时间和持续时间中的任两项, 或 者第二时段的起始时间、 结束时间和持续时间中的任两项, UE都能够分辨出基站何时 不会调度 UE (即第二时段) , 何时可能调度 UE (即第一时段) 。 因此, 本发明各实施 例虽然主要以临时调度信息包括调度周期、 一个调度周期内基站停止调度 UE的起始时 间和一个调度周期内基站停止调度 UE的持续时间进行举例, 但不意味着仅限定于此。 基站根据接收的第一指示和 UE发送的调度信息, 可以获知 GPS系统为被干扰系统, 以及 GPS系统将如何调度 UE, 当然, 基站也可以认为 UE发送的调度信息是 UE建议如何 接收来自 GPS系统的数据。可选的, 基站通过修改 UE发送的调度信息来实现生成临时调 度信息, 例如, 基站根据 UE的当前业务情况和 /或该基站的当前资源调度情况修改 UE发 送的调度信息, 再将修改后的调度信息作为临时调度信息发送给 UE。 需要说明的是, 本发明各实施例采用 "A和 /或 B"的方便描述, 包括以下三种情况: (1 ) A; (2) B; 或 (3 ) A禾口 B。 例如, UE的当前业务情况为使用 VoIP业务, 基站对该 UE进行半静态调度, 假设每 20ms为一个周期, UE在每个周期内的特定子帧接收或发送一次 VoIP业务数据, 该特定 子帧与 UE根据 GPS系统的调度信息可以接收来自 GPS系统的数据的时段(起始接收时间 SFN为 12的帧中第 2个子帧, 持续接收时间为 10ms) 相重叠, 即基站对 UE进行的调度与 GPS系统对 UE的调度发生冲突: 如果按照基站当前对 UE的半静态调度, UE应该在该特 定子帧对应到 LTE系统的某时刻发送或接收 LTE系统数据; 如果按照 UE发送的 GPS系统 的调度信息, UE应该在该特定子帧接收来自 GPS系统的数据, 而不能发送或接收 LTE数 据。 因此, 基站需要对 UE发送的调度信息进行修改, 或者, 对正在对 UE进行的半静态 调度进行重配置。例如:基站将 UE发送的调度信息中停止调度 UE的起始时间" SFN为 12" 修改为 "SFN为 13", 即基站将对 UE进行的临时调度包括: 从 SFN为 13的帧中的第 2个子 帧开始, 持续 10个子帧 (即 10ms) 不调度 UE, 调度周期为 20ms (相当于两次不调度 UE 的时段之间的时间间隔为 10ms) , 从而将基站对 UE的半静态调度错开 GPS系统对 UE的 调度。 进一步的, 基站发送给 UE的临时调度信息可以为 20 (调度周期, 单位为 ms或子 帧) , 13和 2 (停止调度 UE的起始时间的 SFN和子帧号) , 10 (每个周期内不调度 UE的 持续时间,单位为 ms或子帧)。基站给 UE发送的调度信息中可能调度 UE的起始时间" SFN 为 12", 即基站将对 UE进行的临时调度包括: 从 SFN为 12的帧中的第 2个子帧开始, 持续 10个子帧(即 10ms)可能调度 UE, 调度周期为 20ms (相当于两次可能调度 UE的时段之 间的时间间隔为 10ms) , 从而将基站对 UE的半静态调度错开 GPS系统对 UE的调度。 进 一步的, 基站发送给 UE的临时调度信息可以为 20 (调度周期, 单位为 ms或子帧) , 12 和 2 (可能调度 UE的起始时间的 SFN和子帧号) , 10 (每个周期内可能调度 UE的持续时 间, 单位为 ms或子帧) 。 又如, 基站当前对其控制的其他 UE的资源调度情况为基站正在对其他某些 UE进行 的临时调度 (例如, 因存在系统间的干扰而按照某临时调度信息调度这些 UE) 与 UE发 送给基站的 GPS系统对 UE的调度一致。如果基站不进行调整, 可能导致基站在某段时间 不调度任何 UE或者可调度的 UE明显减少,则这段时间的资源没有被利用或利用率很低, 出现资源浪费。 因此, 基站可以对不同 UE的临时调度在时间上错开, 例如, 基站为不 同 UE生成的临时调度信息中, 停止调度 UE的起始时间各不相同, 从而避免资源浪费, 将小区资源利用率最大化。 又如, 基站先根据 UE的当前业务情况修改 UE发送的调度信息(简称第一次修改), 然后根据该基站的当前资源调度情况再次修改(简称第二修改)第一次修改后的调度信 息, 并将第二次修改后的调度信息作为临时调度信息发送给 UE。 S150、 基站按照临时调度信息调度 UE。 对于 UE来说, 在临时调度信息指示的基站不调度 UE的时段, 可以接收 GPS系统的 数据。 例如, UE从 SFN为 13的帧中的第 2个子帧开始, 持续 10个子帧接收 GPS系统的数 据, 比如接收 GPS系统的 C/A码、 或 P码等测距码, 接收 GPS系统的导航电文等。 UE接收 GPS系统的数据以 20ms为一个周期。 可选的, 如果 GPS系统被关闭或停止使用, UE可以发送表示不存在干扰的第一指示 给基站 (S160) , 则基站可以停止使用临时调度信息, 并通知 UE临时调度信息失效 ( S170) 。 例如, 基站改为采用现有技术调度 UE, 而不再受到其他系统调度 UE的影响。 可选的, 本实施例中的基站为 LTE系统中正在为 UE提供服务的基站, 如果 UE将从 该基站切换到目标基站,则该基站可以将 UE发送的第一指示和 GPS系统的调度信息发送 给目标基站, 以便于目标基站获知存在干扰系统, 并可能为该 UE生成临时调度信息。 本实施例中, LTE系统中的基站根据 UE发送的信息来生成临时调度信息, 可以避免 LTE系统和其他频段邻近的系统 (如 GPS系统) 对 UE的调度发生冲突, 解决 UE在两个 频段邻近的系统中收发消息相互干扰的问题。 如图 3所示, 本发明的另一个实施例提供一种方法。 该方法包括如下步骤。
S310、 与 S110类似。 区别在于, 本实施例将以 LTE bancHO与 ISM WLAN系统互为 干扰系统为例进行说明,本实施例还适用于 LTE band 40与 ISM BT互为干扰系统的情况, 不再单独描述。 S320、 与 S120类似。 区别在于, LTE band 40与 ISM系统互为干扰系统的情况包括:
LTE band 40与 ISM WLAN系统互为干扰系统, LTE band 40与 ISM BT互为干扰系统两种 情况。 因此, 如果 UE判断出 ISM WLAN系统或 ISM BT与 LTE band 40存在干扰, 则 UE 在本步骤中, 可以除发送第一指示外, 还发送第二指示给基站, 该第二指示用于表示与 LTE系统存在干扰的是 ISM WLAN系统还是 ISM BT。例如, 该第二指示占用 1比特信息, 该比特信息为 1时, 表示干扰系统为 ISM WLAN系统; 该比特信息为 0时, 表示干扰系统 为 ISM BT。 可选的, 第二指示与第一指示携带在相同的消息中, 以减少对空口资源的占用。
S330、 基站生成临时调度信息, 并将该临时调度信息发送给 UE, 该临时调度信息 指示基站在哪些时刻对 UE不进行的调度, 以便 UE在该时刻使用其它系统。 例如, 临时 调度信息包括调度周期、 一个调度周期内基站不调度 UE的起始时间 (可简称为停止调 度 UE的起始时间)和一个调度周期内基站不调度 UE的持续时间 (可简称为停止调度 UE 的持续时间) 。 又如, 临时调度信息包括调度周期、 一个调度周期内基站不调度 UE的 起始时间 (可简称为停止调度 UE的起始时间) 和一个调度周期内基站不调度 UE的结束 时间 (可简称为停止调度 UE的结束时间) 。 又如, 临时调度信息包括调度周期、 一个 调度周期内基站调度 UE的起始时间和一个调度周期内基站调度 UE的持续时间。 又如, 临时调度信息包括调度周期、 一个调度周期内基站调度 UE的起始时间和结束时间。 可选的, 该临时调度信息携带在基站发送给 UE的 RRC消息中。 干扰系统为基于竞争的 ISM WLAN系统时, 不存在该系统的调度信息。可选的, UE 可能生成建议调度信息并发送给基站, 该建议调度信息指示 UE期望基站如何调度 UE, 以使 UE能够在没有基站调度的时段内使用 ISM WLAN系统, 即与 ISM WLAN系统进行 通信, 包括上行或下行数据的传输、 信令交互等。 可选的, UE根据该 UE的 LTE系统业 务使用情况和其它系统业务使用情况生成建议调度信息, 建议基站允许该 UE接收来自 ISM WLAN系统的数据的时段。例如, UE在使用 WLAN系统进行 IP网络电话(例如 skype) 电话, 并使用 LTE系统进行数据下载, 为了尽量保证 IP网络电话电话的质量, 即尽量能 够周期性的发送接收 IP网络电话数据, UE可建议基站周期性的不调度 UE, 从而使 UE在 基站不调度 UE的时刻使用 WLAN系统的 IP网络电话电话业务。 例如, UE建议基站所做 的调度为: 基站从 SFN为 15的帧中的第 6个子帧开始, 持续 5个子帧(SP5ms)不调度 UE, 调度周期为 100ms (相当于两次不调度 UE的时段之间的时间间隔为 50ms) 。 进一步的, UE发送给基站的建议调度信息可以为: 100 (调度周期, 单位为 ms或子帧), 15和 6 (停 止调度 UE的起始时间的 SFN和子帧号) , 5 (每个周期内不调度 UE的持续时间, 单位为 ms或子巾贞) 。 如果 UE发送建议调度信息给基站, 则基站根据接收的第一指示、 第二指示和建议 调度信息, 可以获知 ISM WLAN系统为干扰系统, 并获知 UE建议基站如何调度 UE。 可 选的, 基站通过修改 UE发送的调度信息来实现生成临时调度信息, 例如, 基站根据 UE 的当前业务情况和 /或该基站的资源调度情况修改 UE发送的建议调度信息, 再将修改后 的调度信息作为临时调度信息发送给 UE。 例如, UE的当前业务情况为使用 VoIP业务, 基站对该 UE进行半静态调度, 假设每 20ms为一个周期, UE在每个周期内的特定子帧接收或发送一次 VoIP业务数据, 该特定 子帧与 UE建议接收来自 ISM WLAN系统的数据的时段(起始接收时间 SFN为 15的帧中第 6个子帧, 持续接收时间为 5ms) 相重叠, 因此, 基站需要对 UE发送的建议调度信息进 行修改, 或者, 对正在对 UE进行的半静态调度进行重配置。 例如: 基站将 UE建议的停 止调度 UE的起始时间" SFN为 15"修改为 "SFN为 16", 即基站将对 UE进行的临时调度包 括: 从 SFN为 16的帧中的第 6个子帧开始, 持续 5个子帧 (SP5ms) 不调度 UE, 调度周期 为 100ms (相当于两次不调度 UE的时段之间的时间间隔为 50ms) , 从而将基站对 UE的 半静态调度错开 UE接收来自 ISM WLAN系统的数据的时段。 进一步的, 基站发送给 UE 的临时调度信息可以为 100 (调度周期, 单位为 ms或子帧) , 16和 6 (停止调度 UE的起 始时间的 SFN和子帧号) , 5 (每个周期内不调度 UE的持续时间, 单位为 ms或子帧) 。 又如, 基站当前的资源调度情况为基站正在对其他某些 UE进行临时调度 (例如, 因存在系统间的干扰而按照某临时调度信息调度这些 UE) 与 UE发送给基站的建议调度 信息一致。 如果基站不进行调整, 可能导致基站在某段时间不调度任何 UE或者可调度 的 UE明显减少, 则这段时间的资源没有被利用或利用率很低, 出现资源浪费。 假设本 实施例中的 UE为 UE11 ,基站正在对其他 10个 UE (即 UE1至 UE10)进行临时调度,其中, 基站对 UE 1的临时调度为: 停止调度 UE 1的起始时间为 SFN为 1的帧中第 6个子帧, 持续 时间为 5ms, 调度周期为 30ms。基站对 UE 2的临时调度为:停止调度 UE 2的起始时间 SFN 为 31的帧中第 6个子帧, 持续时间为 5ms, 调度周期为 30ms, ..., 基站对 UE 10的临时调 度为: 停止调度 UE 10的起始时间为 SFN为 271的帧中第 6个子帧, 持续时间为 5ms, 调度 周期为 30ms。 如果其余的 UE都建议接收来自 ISM WLAN系统的数据的时段为: 起始接 收时间为 SFN为 31的帧中第 6个子帧, 持续接收时间为 5ms, 周期为 30ms, 也即 UE建议 基站在该时段内不要调度 UE, 则会存在同一个位置有多个 UE都无法被调度的情况。 基 站为了避免资源浪费, 例如避免 SFN为 31的第 6个子帧, 及其后续的 5ms不被任何 UE使 用而造成该资源浪费, 基站可以对其余的 UE进行离散分配。 例如, UE 11进行如下临时 调度: 基站从 SFN为 301的帧中的第 6个子帧开始, 持续 5个子帧(SP5ms)不调度 UE 11, 调度周期为 30ms, 相应的, 基站修改 UE发送的建议调度信息, 生成的临时调度信息为: 30 (调度周期, 单位为 ms或子帧), 301和 6 (停止调度 UE的起始时间的 SFN和子帧号), 5 (每个周期内不调度 UE的持续时间, 单位为 ms或子帧) 。 可选的, 如果 UE没有生成或发送建议调度信息给基站, 则基站根据接收的第一指 示和第二指示获知 ISM WLAN系统为干扰系统后, 可以生成临时调度信息。 例如, 根据 UE的当前业务情况和 /或该基站的资源调度情况为 UE生成临时调度信息。 例如, UE的当前业务情况为使用 VoIP业务, 基站对该 UE进行半静态调度, 假设每
20ms为一个周期, UE在每个周期内的特定子帧接收或发送一次 VoIP业务数据。 基站会 考虑尽可能避免对该半静态调度周期造成影响, 因此基站尽可能将临时调度周期避开该 半静态调度周期。 例如: 当前的半静态调度周期的起始时间 SFN为 15的帧中第 2个子帧, 周期为 20ms, 允许 UE收发数据的持续时间为 lms。 基站可以对 UE进行的临时调度包括: 从 SFN为 16的帧中的第 6个子帧开始, 持续 5个子帧 (SP5ms) 不调度 UE, 调度周期为 100ms, 相当于两次不调度 UE的时段之间的时间间隔为 50ms, 从而将基站对 UE的临时 调度错开当前对 UE进行的半静态调度。 进一步的, 基站发送给 UE的临时调度信息可以 为 100 (调度周期, 单位为 ms或子帧) , 16和 6 (停止调度 UE的起始时间的 SFN和子帧 号) , 5 (每次不调度 UE的持续时间, 单位为 ms或子帧) 。 又如, 基站当前的资源调度情况为基站正在对其他某些 UE进行临时调度, 假设本 实施例中的 UE为 UE11 ,基站正在对其他 10个 UE (即 UE1至 UE10)进行临时调度,其中, 基站对 UE 1的临时调度为: 停止调度 UE 1的起始时间为 SFN为 1的帧中第 6个子帧, 持续 时间为 5ms, 调度周期为 30ms。基站对 UE 2的临时调度为:停止调度 UE 2的起始时间 SFN 为 2的帧中第 6个子帧, 持续时间为 5ms, 调度周期为 30ms, ..., 基站对 UE 10的临时调 度为: 停止调度 UE N的起始时间为 SFN为 271的帧中第 6个子帧, 持续时间为 5ms, 调度 周期为 30ms。 如果还有其它 UE存在同样的干扰,如果基站重复分配 UE同一个临时调度, 必然会产生某个临时调度周期只有少量 UE可以被调度的情况, 则基站为了避免资源浪 费, 例如避免 SFN为 271的第 6个子帧, 及其后续的 5ms被重复分配, 以致于不被任何 UE 使用而造成该资源浪费, 基站可以对其余的 UE进行离散分配.例如 UE 11进行如下临时 调度: 基站从 SFN为 301的帧中的第 6个子帧开始, 持续 5个子帧(SP5ms)不调度 UE 11, 调度周期为 30ms, 相应的, 基站生成的临时调度信息为: 30 (调度周期, 单位为 ms或 子帧) , 11和 6 (停止调度 UE的起始时间的 SFN和子帧号) , 5 (每个周期内不调度 UE 的持续时间, 单位为 ms或子帧) 。 又如, 基站要对 UE进行的临时调度为: 基站从 SFN为 12的帧中的第 2个子帧开始, 持续 5个子帧 (SP5ms) 不调度 UE, 调度周期为 100ms (相当于两次不调度 UE的时段之 间的间隔为 50ms) 。 又如, 临时调度信息为 100 (调度周期, 单位为 ms或子帧) , 12和 8 (停止调度 UE的起始时间的 SFN和子帧号) , 5 (每个周期内不调度 UE的持续时间, 单位为 ms或子帧) 。 又如, UE的当前业务情况为未使用半静态调度接收业务, 基站的资源调度情况为 该基站下的其他 UE未进行临时调度, 则基站可以优先采用该 UE发送的建议调度信息。 如果基站没有接收到建议调度信息, 可以随机生成临时调度信息, 并通知 UE在临时调 度信息指示的基站不调度 UE期间, 发送或接收其他系统的数据。 又如, 基站先根据 UE的当前业务情况修改 UE发送的调度信息(简称第一次修改), 然后根据该基站的当前资源调度情况再次修改(简称第二修改)第一次修改后的调度信 息, 并将第二次修改后的调度信息作为临时调度信息发送给 UE。
S340、 基站按照临时调度信息调度 UE。 对于 UE来说, 在临时调度信息指示的基站不调度 UE的时段, 可以与 ISM WLAN系 统进行上行或下行的通信, 包括数据上传和下载、 信令交互等。 可选的, 如果 ISM WLAN系统被关闭, UE可以发送表示不存在干扰的第一指示给 基站(S350) ,则基站可以停止使用临时调度信息,并通知 UE临时调度信息失效(S360)。 例如, 基站改为采用现有技术调度 UE, 而不再受到其他系统调度 UE的影响。 可选的, 本实施例中的基站为 LTE系统中正在为 UE提供服务的基站, 如果 UE将从 该基站切换到目标基站, 则该基站可以将 UE发送的第一指示和第二指示发送给目标基 站, 以便于目标基站获知存在干扰系统, 并可能为该 UE生成临时调度信息。 本实施例中, LTE系统中的基站根据 UE发送的信息来生成临时调度信息, 可以避免 LTE系统对 UE的调度和 UE使用其他频段相邻的系统 (如 ISM系统) 发生冲突, 解决 UE 在两个频段邻近的系统中收发消息相互干扰的问题。 本发明的另一个实施例提供一种方法, 该方法与如图 3所示的实施例所提供的方法 的区别在于, UE生成建议调度信息并发送给基站, 基站发送确认消息给 UE, 以确认建 议调度信息被接受, 然后基站按照建议调度信息调度 UE。 也就是说, 基站接受 UE对于 基站如何调度 UE的建议而无需生成临时调度信息, 也可以认为基站将 UE发送的建议调 度信息作为临时调度信息。 可选的, 基站发送给 UE的关于建议调度信息的确认消息可 以是 ACK消息, 或者包含确认字段的其他消息, 上述确认消息可以同时确认第一指示和 建议调度信息的正确接收。 本实施例可以避免 UE在两个频段邻近的系统中收发消息相互干扰,还可以减少 LTE 系统中的基站的内部操作, 例如生成临时调度信息的操作, 并有利于 UE协调对不同系 统的使用。 如图 4所示, 本发明的另一个实施例提供一种装置 40, 该装置 40可以用于实现本发 明其他实施例提供的调度方法中基站完成的动作。 例如, 该装置 40位于第一系统中, 并 包括接收单元 410、 处理单元 420和发送单元 430。 其中, 接收单元 410用于接收 UE发送 的第一指示, 所述第一指示表示第一系统与第二系统间存在干扰。 处理单元 420用于生 成临时调度信息, 并按照临时调度信息调度 UE。 发送单元 430用于将临时调度信息发送 给 UE。 其中, 处理单元 420按照临时调度信息调度 UE的时间与 UE接收来自第二系统的 数据的时间不重叠。 可选的, 第一系统为 LTE系统, 并为 UE提供服务的设备, 例如: LTE系统中正在为 UE提供服务的基站。 以第一系统为 LTE band 40, 第二系统为 ISM WLAN系统或 ISM BT系统为例, 处理 单元 420具体用于根据 UE的当前业务情况和 /或该基站的当前资源调度情况(例如对其控 制的其他 UE的资源调度情况) 生成临时调度信息。 或者, 接收单元 410还用于接收 UE 发送的建议调度信息,处理单元 420具体用于根据 UE的当前业务情况和 /或该基站的当前 资源调度情况 (例如对其控制的其他 UE的资源调度情况) 修改所述建议调度信息, 修 改后的调度信息为临时调度信息, 其中, 建议调度信息指示 UE建议基站如何调度 UE。 可选的, 处理单元还用于在 UE切换至目标基站之前, 将所述第一指示发送给所述目标 基站; 其中, 所述目标基站处于所述第一系统。 以第一系统为 LTE band 13或 LTE band 14, 第二系统为 GPS系统为例, 接收单元 410 还用于接收 UE发送的第二系统的调度信息, 第二系统的调度信息用于第二系统对 UE进 行调度。 处理单元 420具体用于根据所述第二系统的调度信息生成临时调度信息。 需要 说明的是,处理单元 420按照临时调度信息调度 UE的时间与 UE接收来自第二系统的数据 的时间不重叠, 也可理解为, 处理单元 420按照临时调度信息调度 UE的时间与第二系统 按照第二系统的调度信息调度 UE的时间不重叠。 可选的, 所述第二系统的调度信息与 所述第一指示携带在同一 RRC消息中; 或者, 所述接收单元 410还用于接收表示第二系 统的类型的第二指示, 所述第二系统的调度信息、 所述第一指示与第二指示携带在同一 个无线资源控制 RRC消息中。 相应的, 所述 UE在接收到接收单元 410发送的临时调度信 息后, 在基站未调度 UE的时段内接受第二系统按照第二系统的调度信息进行的调度, 例如接收接收第二系统的数据。 例如, 处理单元 430根据所述第二系统的调度信息生成 临时调度信息包括: 根据 UE的当前业务情况和 /或该基站的当前资源调度情况修改 UE发 送的调度信息, 并将修改后的调度信息作为临时调度信息。 可选的, 第二系统的调度信 息是经过 UE转换生成的以第一系统的时间为基准的调度信息, 其中, 所述转换包括将 调度信息由以第二系统的时间为基准转换为以第一系统的时间为基准。 可选的, 发送单 元 420还用于在 UE切换至目标基站之前, 将所述第一指示和所述第二系统的调度信息发 送给所述目标基站; 其中, 所述目标基站处于所述第一系统。 可选的, 接收单元 410还用于接收 UE发送的表示第一系统与第二系统间不存在干扰 的第一指示, 相应的, 处理单元 420还用于停止按照所述临时调度信息调度 UE。 进一步 的, 处理单元 420还用于通知 UE临时调度信息失效。 可选的, 本实施例中的临时调度信息包括: 调度周期、 一个调度周期内基站不调度 UE的起始时间和一个调度周期内基站不调度 UE的持续时间; 或者, 调度周期、 一个调 度周期内基站不调度 UE的起始时间和结束时间。 使用本实施例提供的装置可以避免 UE在两个频段邻近的系统中收发消息相互干 扰。 如图 5所示, 本发明的另一个实施例提供一种装置 50, 该装置 50可以用于实现本发 明其他实施例提供的调度方法中 UE完成的动作。 例如, 该装置 50包括收发单元 510和执 行单元 520。其中,收发单元 510用于向第一系统中的基站发送第一指示和建议调度信息, 所述第一指示表示第一系统与第二系统间存在干扰。 收发单元 510还用于接收基站发送 的确认消息。 执行单元 520用于按照所述建议调度信息接受基站的调度, 并在基站未调 度 UE的时段内接收第二系统的数据。 其中, 确认消息表示对第一指示和建议调度信息 的确认, 例如, 确认正确接收和 /或接受建议。 以第一系统为 LTE band40系统, 第二系统为 ISM WLAN系统或 ISM BT系统为例, 执行单元 520还用于, 在收发单元 510向第一系统中的基站发送第一指示之前, 判断所述 第一系统和第二系统间是否存在干扰; 如果所述第一系统和第二系统间存在干扰, 触发 收发单元 510发送所述第一指示给基站。 可选的, 收发单元 510还用于从基站获知所述临 时调度信息失效时, 并触发执行单元 520停止按照所述临时调度信息接受基站调度。 可 选的, 执行单元 520还用于判断出所述第一系统和第二系统间不存在干扰时, 触发收发 单元 510通知基站第一系统与第二系统不存在干扰。 可选的, 本实施例中的临时调度信息包括: 调度周期、 一个调度周期内基站不调度 UE的起始时间和一个调度周期内基站不调度 UE的持续时间; 或者, 调度周期、 一个调 度周期内基站不调度 UE的起始时间和结束时间。 本实施例提供的装置在两个频段邻近的系统中收发消息是不会相互干扰。 本领域普通技术人员可以理解实现上述实施例方法中的全部或部分步骤是可以通 过程序来指令相关的硬件来完成, 所述的程序可以存储于一计算机可读取存储介质中, 所述的存储介质, 如: ROM/RAM、 磁碟、 光盘等。 例如, 程序可以按照如下步骤运行: 第一系统中的基站接收用户设备 UE发送的第 一指示, 所述第一指示表示第一系统与第二系统间存在干扰; 所述基站生成临时调度信 息, 并发送所述临时调度信息给 UE; 所述基站按照所述临时调度信息调度 UE, 基站按 照所述临时调度信息调度 UE的时间与 UE接收来自第二系统的数据的时间不重叠。 通过 该程序指令基站或其中的部分硬件来完成上述步骤, 可以避免 UE在两个频段邻近的系 统中收发消息相互干扰。 又如, 程序可以按照如下步骤运行: 向第一系统中的基站发送第一指示和建议调度 信息, 所述第一指示表示第一系统与第二系统间存在干扰; 所述 UE接收基站发送的确 认消息; 所述 UE按照所述建议调度信息接受基站的调度, 并在基站未调度 UE的时段内 接收第二系统的数据。 通过该程序指令 UE或其中的部分硬件来完成上述步骤, 可以避 免 UE在两个频段邻近的系统中收发消息相互干扰。 以上仅是本发明的优选实施方式,应当指出,对于本技术领域的普通技术人员来说, 在不脱离本发明原理的前提下, 还可以作出若干改进和润饰, 这些改进和润饰也应视为 本发明的保护范围。

Claims

权利要求
1、 一种调度方法, 其特征在于, 包括:
第一系统中的基站接收用户设备 UE发送的第一指示, 所述第一指示表示第一系统 与第二系统间存在干扰;
所述基站生成临时调度信息, 并发送所述临时调度信息给 UE;
所述基站按照所述临时调度信息调度 UE, 基站按照所述临时调度信息调度 UE的时 间与 UE接收来自第二系统的数据的时间不重叠。
2、 如权利要求 1所述的方法, 其特征在于, 所述基站生成临时调度信息包括: 基站根据 UE的当前业务情况和 /或该基站的当前资源调度情况生成临时调度信息; 或者,
基站接收 UE发送的建议调度信息, 根据 UE的当前业务情况和 /或该基站的当前资源 调度情况修改所述建议调度信息, 修改后的调度信息为临时调度信息, 其中, 建议调度 信息指示 UE建议基站如何调度 UE。
3、 如权利要求 1或 2所述的方法, 其特征在于, 所述方法还包括:
所述基站在 UE切换至目标基站之前, 将所述第一指示发送给所述目标基站; 其中, 所述目标基站处于所述第一系统。
4、 如权利要求 1至 3任一项所述的方法, 其特征在于, 所述第一系统为频段编号为 40的长期演进 LTE系统, 所述第二系统为使用工业、 科学和医用频段的无线局域 WLAN 系统或蓝牙 BT系统。
5、 如权利要求 1所述的方法, 其特征在于,
所述基站生成临时调度信息之前, 所述方法还包括: 基站接收 UE发送的第二系统 的调度信息;
所述基站生成临时调度信息包括: 所述基站根据所述第二系统的调度信息生成临时 调度信息;
所述 UE在基站未调度 UE的时段内接受第二系统按照第二系统的调度信息进行的调 度。
6、 如权利要求 5所述的方法, 其特征在于,
所述第二系统的调度信息与所述第一指示携带在同一无线资源控制 RRC消息中; 或 者, 所述基站还接收表示第二系统的类型的第二指示, 所述第二系统的调度信息、 所述 第一指示与第二指示携带在同一个无线资源控制 RRC消息中。
7、 如权利要求 5或 6所述的方法, 其特征在于, 所述基站根据所述第二系统的调度 信息生成临时调度信息包括:
基站根据 UE的当前业务情况和 /或该基站的当前资源调度情况修改 UE发送的调度 信息, 并将修改后的调度信息作为临时调度信息。
8、 如权利要求 5至 7任一项所述的方法, 其特征在于, 所述第二系统的调度信息是 经过 UE转换生成的以第一系统的时间为基准的调度信息, 其中, 所述转换包括将调度 信息由以第二系统的时间为基准转换为以第一系统的时间为基准。
9、 如权利要求 5至 8任一项所述的方法, 其特征在于, 所述方法还包括: 所述基站在 UE切换至目标基站之前, 将所述第一指示和所述第二系统的调度信息 发送给所述目标基站; 其中, 所述目标基站处于所述第一系统。
10、 如权利要求 2至 9任一项所述的方法, 其特征在于, 所述第一系统为频段编号为 13或 14的 LTE系统, 所述第二系统为全球定位 GPS系统。
11、 如权利要求 1至 10所述的方法, 其特征在于, 所述方法还包括:
UE判断所述第一系统和第二系统间是否存在干扰;
如果所述第一系统和第二系统间存在干扰, UE发送第一指示给基站。
12、 如权利要求 1至 11任一项所述的方法, 其特征在于, 按照所述临时调度信息调 度 UE之后, 所述方法还包括:
所述基站获知第一系统与第二系统间不存在干扰时,停止按照所述临时调度信息调 度 UE。
13、 如权利要求 1至 12任一项所述的方法, 其特征在于, 所述临时调度信息包括: 调度周期、 一个调度周期内基站不调度 UE的起始时间和一个调度周期内基站不调 度 UE的持续时间; 或者,
调度周期、 一个调度周期内基站不调度 UE的起始时间和结束时间; 或者, 调度周期、 一个调度周期内基站调度 UE的起始时间和一个调度周期内基站调度 UE 的持续时间; 或者,
调度周期、 一个调度周期内基站调度 UE的起始时间和结束时间。
14、 一种调度方法, 其特征在于, 包括: 用户设备 UE向第一系统中的基站发送第一指示和建议调度信息, 所述第一指示表 示第一系统与第二系统间存在干扰;
所述 UE接收基站发送的确认消息;
所述 UE按照所述建议调度信息接受基站的调度, 并在基站未调度 UE的时段内接收 第二系统的数据。
15、 如权利要求 14所述的方法, 其特征在于, 所述第一系统为频段编号为 40的长期 演进 LTE系统, 所述第二系统为使用工业、 科学和医用频段的无线局域 WLAN系统或蓝 牙 BT系统。
16、 如权利要求 14或 15所述的方法, 其特征在于, 所述 UE向第一系统中的基站发 送第一指示之前, 所述方法还包括:
UE判断所述第一系统和第二系统间是否存在干扰;
如果所述第一系统和第二系统间存在干扰, UE发送所述第一指示给基站。
17、 如权利要求 14至 16任一项所述的方法, 其特征在于, 所述 UE按照建议调度信 息接受基站的调度之后, 所述方法还包括:
所述 UE从基站获知所述临时调度信息失效时, 停止按照所述临时调度信息接受基 站调度。
18、 如权利要求 17所述的方法, 其特征在于, 所述 UE从基站获知所述临时调度信 息失效之前, 所述方法还包括:
所述 UE判断所述第一系统和第二系统间不存在干扰时, UE通知基站第一系统与第 二系统不存在干扰。
19、 如权利要求 14至 18任一项所述的方法, 其特征在于, 所述建议调度信息包括: 调度周期、 一个调度周期内基站不调度 UE的起始时间和一个调度周期内基站不调 度 UE的持续时间; 或者,
调度周期、 一个调度周期内基站不调度 UE的起始时间和结束时间; 或者, 调度周期、 一个调度周期内基站调度 UE的起始时间和一个调度周期内基站调度 UE 的持续时间; 或者,
调度周期、 一个调度周期内基站调度 UE的起始时间和结束时间。
20、 一种装置, 位于第一系统中, 包括: 接收单元、 处理单元和发送单元, 其中, 接收单元用于接收 UE发送的第一指示, 所述第一指示表示第一系统与第二系统间 存在干扰; 处理单元用于生成临时调度信息, 并按照临时调度信息调度 UE;
发送单元用于将临时调度信息发送给 UE;
其中, 处理单元按照临时调度信息调度 UE的时间与 UE接收来自第二系统的数据的 时间不重叠。
21、 一种装置, 包括收发单元和执行单元, 其中,
收发单元用于向第一系统中的基站发送第一指示和建议调度信息,所述第一指示表 示第一系统与第二系统间存在干扰;
收发单元还用于接收基站发送的确认消息;
执行单元 520用于按照所述建议调度信息接受基站的调度, 并在基站未调度 UE的时 段内接收第二系统的数据。
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