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WO2012159327A1 - 多载频功放资源的控制方法以及装置 - Google Patents

多载频功放资源的控制方法以及装置 Download PDF

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Publication number
WO2012159327A1
WO2012159327A1 PCT/CN2011/077104 CN2011077104W WO2012159327A1 WO 2012159327 A1 WO2012159327 A1 WO 2012159327A1 CN 2011077104 W CN2011077104 W CN 2011077104W WO 2012159327 A1 WO2012159327 A1 WO 2012159327A1
Authority
WO
WIPO (PCT)
Prior art keywords
carrier frequency
board
time slot
service data
carrier
Prior art date
Legal status (The legal status 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 status listed.)
Ceased
Application number
PCT/CN2011/077104
Other languages
English (en)
French (fr)
Inventor
耿婷婷
张舜卿
张伟
徐树公
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Huawei Technologies Co Ltd
Original Assignee
Huawei Technologies Co Ltd
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.)
Filing date
Publication date
Application filed by Huawei Technologies Co Ltd filed Critical Huawei Technologies Co Ltd
Priority to EP11854539.1A priority Critical patent/EP2665311B1/en
Priority to CN201180001654.0A priority patent/CN103339991B/zh
Priority to KR1020147001935A priority patent/KR101572933B1/ko
Priority to PCT/CN2011/077104 priority patent/WO2012159327A1/zh
Priority to RU2014105287/07A priority patent/RU2576390C2/ru
Priority to BR112014000761A priority patent/BR112014000761A2/pt
Priority to US13/596,749 priority patent/US20130016643A1/en
Publication of WO2012159327A1 publication Critical patent/WO2012159327A1/zh
Anticipated expiration legal-status Critical
Ceased legal-status Critical Current

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Classifications

    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W52/00Power management, e.g. Transmission Power Control [TPC] or power classes
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W52/00Power management, e.g. Transmission Power Control [TPC] or power classes
    • H04W52/02Power saving arrangements
    • H04W52/0203Power saving arrangements in the radio access network or backbone network of wireless communication networks
    • H04W52/0206Power saving arrangements in the radio access network or backbone network of wireless communication networks in access points, e.g. base stations
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W72/00Local resource management
    • H04W72/12Wireless traffic scheduling
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W88/00Devices specially adapted for wireless communication networks, e.g. terminals, base stations or access point devices
    • H04W88/08Access point devices
    • H04W88/085Access point devices with remote components
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02DCLIMATE CHANGE MITIGATION TECHNOLOGIES IN INFORMATION AND COMMUNICATION TECHNOLOGIES [ICT], I.E. INFORMATION AND COMMUNICATION TECHNOLOGIES AIMING AT THE REDUCTION OF THEIR OWN ENERGY USE
    • Y02D30/00Reducing energy consumption in communication networks
    • Y02D30/70Reducing energy consumption in communication networks in wireless communication networks

Definitions

  • the present invention relates to the field of communications technologies, and in particular, to a method and an apparatus for controlling a multi-carrier frequency power amplifier resource. Background technique
  • the wireless communication network has a large number of devices operating on the Internet, and the network scale continues to grow at a relatively fast rate, and the proportion of large configuration stations is increasing.
  • multi-carrier technology is widely used in GSM (Global System of Mobile communication) and WCDMA (Wideband Code Division Multiple Address).
  • the existing radio remote unit is an important form of base station equipment in a wireless communication system, and generally includes a power amplifier unit and a radio frequency small signal processing unit, wherein the power amplifier unit is generally designed as a multi-carrier power amplifier.
  • a multi-carrier power amplifier refers to a power amplifier capable of carrying multiple carrier frequency bands in the same wireless system or multiple wireless systems.
  • the main features of this type of multi-carrier power amplifier include: It can support multiple carriers for air interface transmission at the same time, and can realize power sharing between multiple carriers.
  • multi-carrier power amplifiers are generally designed as broadband power amplifiers, that is, power amplification can be achieved in a large frequency band.
  • the power amplifier tube is the main device for transmitting power to the antenna in the carrier frequency.
  • Its power consumption is composed of static and dynamic components. Due to the nonlinear characteristics of the power amplifier, even if it does not transmit power, it is necessary to apply a fixed bias voltage. The purpose is to make the power amplifier work in a linear region and ready to transmit power. This part of the power consumption is called static power consumption.
  • the power consumption of the power amplifier also includes another part of the power consumption, that is, dynamic power consumption.
  • the dynamic power consumption depends on whether the time slot is occupied. If there is traffic on the time slot, the power amplifier must transmit power, and the part with relatively static power consumption increases. The dynamic power consumption is divided, and the higher the carrier frequency output power, the higher the dynamic power consumption; if there is no traffic, the dynamic power consumption of the power amplifier is 0, only static power consumption.
  • the power consumption of the power amplifier tube in the seven time slots of 18 1 to 18 7 in which the power amplifier tube is in the working time slot, the energy consumption is dynamic energy plus static energy consumption.
  • the power amplifier tube still has static energy consumption, that is, when the dynamic power consumption is 0, only the power amplifier is turned off, and after the static power consumption is eliminated, the power consumption of the entire power amplifier is Is 0.
  • the power amplifier can be divided into a single carrier power amplifier and a multi-carrier power amplifier according to the configured number of carriers.
  • a single-carrier power amplifier has only one carrier on its power amplifier.
  • a multi-carrier power amplifier refers to two or more carriers configured on one power amplifier.
  • the power amplifier can be divided into a main carrier frequency board and a non-primary carrier frequency board; the resource block part of the main carrier frequency board is used to transmit control signaling of the system, and the remaining The resource block is used to send traffic; the resource block on the non-primary carrier frequency board is only used to send traffic.
  • the existing power control mechanism of the power amplifier is in the absence of a traffic time period (such as a time slot), that is, when the processing resource module or channel resource of the power amplifier is in an idle state and the dynamic power consumption is 0, the time zone is further advanced.
  • a traffic time period such as a time slot
  • the existing power amplifier power control technology for such time slot shutdown is only applicable to a single carrier.
  • the power amplifier can be performed. The gap is turned off. Since the multi-carrier power amplifier has multiple carrier frequencies, the probability that all carriers of the multi-carrier power amplifier will be idle in a certain time slot will be very small compared to the single-carrier device, which greatly affects the multi-carrier device. The efficiency of breaking, it is difficult to achieve energy-saving purposes. Summary of the invention
  • the embodiment of the invention provides a method and a device for controlling a multi-carrier frequency power amplifier resource, and allocates power amplifier resources from the latitude of the time slot to increase the total carrier frequency of the carrier frequency board in the same time slot. The chance of being idle, thereby increasing the off-time of the carrier board and improving energy-saving efficiency.
  • Embodiments of the present invention provide a method for controlling a multi-carrier frequency power amplifier resource, which mainly includes allocating service data to a working carrier frequency in a time slot of an unstoppable carrier frequency; and then, in the time slot of the non-offload carrier frequency After the working carrier frequency allocation service data is completed, the service data is allocated to a working carrier frequency in a time slot in which the carrier frequency can be turned off, and the working carrier frequency in the time slot in which the carrier frequency can be turned off is allocated.
  • the service data includes allocating service data to all working carrier frequencies in one of the time slots and then allocating service data to the working carrier frequency in the other of the time slots.
  • An embodiment of the present invention provides a method for controlling energy saving of a multi-carrier frequency power amplifier resource, where the method includes allocating service data to a primary carrier frequency board, wherein if the working carrier frequency of the primary carrier frequency board is allocated, the method is not Allocating service data to the working carrier frequency of the carrier board, the distributing service data to the working carrier of the non-primary carrier board includes performing service data distribution to all carrier frequencies in a time slot of the non-primary carrier board The working carrier frequency in another time slot allocates service data; then, after the service data is allocated, the non-primary carrier board is turned off in an idle time slot, where the idle time slot is within the time slot There is no service data distribution for all carrier frequencies of the carrier board.
  • An embodiment of the present invention provides a control device for a multi-carrier frequency power amplifier resource, including a data distribution unit and an energy-saving control unit.
  • the data distribution unit allocates service data to a working carrier frequency in a time slot in which the carrier frequency cannot be turned off
  • the service data is allocated to the working carrier frequency in the time slot of the non-stop carrier frequency
  • the service data is allocated to the working carrier frequency in the time slot in which the carrier frequency can be turned off, and the direction can be turned off.
  • Assigning the traffic data to the working carrier within the time slot includes allocating traffic data to all of the working carrier frequencies in the time slot and then allocating traffic data to the working carrier frequency in the other of the time slots.
  • An embodiment of the present invention provides an energy saving control apparatus for a multi-carrier frequency power amplifier resource, including a data distribution unit and an energy saving control unit, wherein the data distribution unit is configured to allocate service data to a primary carrier frequency board, wherein if the primary carrier frequency board After the working carrier frequency is allocated, the service data is allocated to the working carrier frequency of the non-primary carrier frequency board, and the distributing the service data to the working carrier frequency of the non-main carrier frequency board includes completing the non-main carrier frequency board All carrier frequencies in one slot are allocated to the service data and then to another time slot.
  • the energy saving control unit is configured to: after the service data is allocated, turn off the non-primary carrier board in the idle time slot, where the idle time slot refers to In the time slot, there is no service data allocation for all carrier frequencies of the carrier board.
  • the embodiment of the present invention provides a base station, where the base station includes a plurality of sectors, each sector includes a multi-carrier frequency power amplifier and a multi-carrier power amplifier resource control device, and the multi-carrier frequency power amplifier is used to carry multiple carrier frequency bands. And transmitting a data signal to the terminal; the multi-carrier frequency power resource control device is configured to allocate service data to a working carrier frequency in a time slot of the non-stop carrier frequency, and in the time slot to the non-stop carrier frequency After the working carrier frequency allocation service data is completed, the service data is allocated to a working carrier frequency in a time slot in which the carrier frequency can be turned off, and the service is allocated to the working carrier frequency in the time slot in which the carrier frequency can be turned off.
  • the data includes allocating service data to all working carrier frequencies within one of the time slots and then allocating service data to the working carrier frequency in the other of the time slots.
  • the method, device, and base station for controlling multi-carrier frequency power amplifier resources provided by the foregoing embodiments of the present invention, scheduling channel resources of multiple carrier frequency power amplifiers from a time slot perspective, and increasing carrier frequency of multiple carrier frequency powers in some switchable carrier frequencies The probability of an idle state occurs in the time slot, and then the power-off control of the multi-carrier power amplifier is performed at the control granularity of the time slot level, thereby achieving the purpose of reducing the static power consumption of the multi-carrier frequency power amplifier.
  • FIG. 1 is a schematic diagram of energy consumption of a power amplifier tube in the prior art.
  • FIG. 2 is a schematic diagram of multiple carrier frequency channel resources in a multi-carrier frequency power amplifier according to an embodiment of the present invention.
  • FIG. 3 is a flowchart of a method for controlling a multi-carrier frequency power amplifier resource according to Embodiment 1 of the present invention.
  • FIG. 4 is a schematic diagram showing a method for controlling a multi-carrier frequency power amplifier resource according to Embodiment 1 of the present invention.
  • FIG. 5 is a flow chart showing an energy-saving control method for a multi-carrier frequency power amplifier resource according to Embodiment 2 of the present invention.
  • FIG. 6 is a flowchart of distributing service data to a primary carrier frequency board according to Embodiment 2 of the present invention.
  • FIG. 7 is a schematic diagram showing the distribution of service data to the main carrier board in FIG. 6.
  • FIG. 8 is a flowchart of another embodiment of the present invention, in which the service data is allocated to the main carrier frequency board, and the base station 10 of the control device for applying the multi-carrier frequency power amplifier resource according to the embodiment of the present invention is shown in FIG.
  • FIG. 11 is a schematic diagram of an energy-saving control apparatus for a multi-carrier frequency power amplifier resource according to Embodiment 4 of the present invention, which is a schematic diagram of a base station according to Embodiment 5 of the present invention.
  • Embodiments of the present invention provide a method and apparatus for controlling multi-carrier frequency power amplifier resources, scheduling channel resources of multiple carrier frequency power amplifiers from a time slot perspective, and increasing carriers of multiple carrier frequency power resources when some carrier frequencies can be turned off.
  • the probability of an idle state occurs in the gap, and then the power-off control of the multi-carrier power amplifier is performed with the control granularity of the slot level, thereby achieving the purpose of reducing the static power consumption of the multi-carrier frequency power amplifier.
  • the foregoing control method of the multi-carrier frequency power amplifier resource can be applied to GSM
  • the multi-carrier frequency channel resource in the multi-carrier frequency power amplifier wherein the main B board represents the main carrier frequency board, the non-main B board represents the non-main carrier frequency board, the C represents the control signaling, the T represents the service data, The numbers 0 ⁇ 7 represent the slot order.
  • the multi-carrier frequency power amplifier includes a main carrier frequency board and a non-main carrier frequency board, the main carrier frequency board is a working carrier frequency board where the main carrier frequency is located, and the main carrier frequency has some or all time slots used for transmission system control.
  • time slot of the primary carrier frequency transmission control signaling is the primary carrier frequency board
  • the time slot of the carrier frequency cannot be turned off, that is, the main carrier board cannot be turned off during the time slot.
  • the other time slots of the main carrier frequency of the main carrier frequency board and other non-primary carrier frequencies are used for transmitting service data.
  • the main carrier frequency board can be turned off in the idle time slot.
  • the carrier frequencies of the non-primary carrier board are used to transmit service data, which is a working carrier board that can turn off the time slots of the carrier frequency.
  • a method for controlling a multi-carrier frequency power amplifier resource includes the following steps:
  • Step 101 Allocate service data to a working carrier frequency in a time slot in which the carrier frequency cannot be turned off.
  • Step 103 Shut down in the time slot of the switchable carrier frequency in which all carrier frequencies have no service data allocation.
  • the working carrier frequency in the time slot of the non-stop carrier frequency refers to the time slot on the primary carrier frequency board corresponding to the time slot used by the primary carrier frequency for transmitting control signaling.
  • Non-primary carrier frequency The time slot used by the primary carrier frequency for transmitting control signaling is a time slot in which the primary carrier frequency board cannot be turned off.
  • the primary carrier frequency of the primary carrier frequency board is used to send control signaling, so In this time slot, even if all non-primary carrier frequencies are in an idle state (no service data is allocated), the primary carrier frequency cannot be turned off.
  • all carrier frequencies of the non-primary carrier board are used to transmit service data, so all time slots belong to time slots that can turn off the carrier board, and the master is used to transmit traffic.
  • the time slot of the data is also the time slot in which the primary carrier board can be turned off.
  • first assigning service data to the non-carrier frequency corresponding to the time slot of the main carrier board that cannot turn off the carrier frequency can improve the effective utilization rate of the main carrier board and save the static power consumption of the main carrier board. . Because, in the time slot where the main carrier board cannot turn off the carrier frequency, regardless of these time slots If the non-primary carrier frequency is idle, the carrier frequency board cannot be turned off. Therefore, prioritizing the service data to the non-primary carrier frequency in these time slots will increase the carrier frequency board (including the main carrier frequency board and the non-main carrier board. The main carrier board) The probability of all carrier frequencies being idle occurs in the time slot in which the carrier frequency can be turned off, thereby improving the energy saving efficiency of the time slot level shutdown.
  • the service data is allocated to the working carrier frequency in the time slot of the non-stop carrier frequency (corresponding to the step of the flag 1 in the circle in the figure)
  • the The working carrier frequency in the time slot of the off carrier frequency is allocated to the working carrier frequency corresponding to the time slot of the main carrier board and the time slot of the switchable carrier frequency, and the working carrier frequency allocation of the non-main carrier frequency board.
  • the specific sequence of assigning service data to the working carrier frequency of the primary carrier frequency board corresponding to the time slot of the switchable carrier frequency and the working carrier frequency of the non-main carrier frequency board is the time slot in the switchable carrier frequency
  • the working carrier frequency of the non-main carrier frequency board corresponding to the time slot with the switchable carrier frequency is correspondingly Assign business data (corresponding to the mark 3 in the circle in the figure). If the processing capacity of the primary carrier board is greater than the service data to be processed, that is, the service data is insufficient to occupy the working carrier frequency resources of the primary carrier board, the non-primary carrier board can be all in one time period. The off-state is always maintained in the time slot, which effectively saves static energy consumption.
  • the allocating the service data to the working carrier frequency in the time slot in which the carrier frequency can be turned off includes allocating service data to all working carrier frequencies in one time slot and then to another
  • the working carrier frequency in the time slot allocates service data, that is, all the carrier frequencies corresponding to the time slots of each switchable carrier frequency are allocated from the latitude of the time slot, for example, as shown in FIG. 4,
  • the main carrier frequency board has three carrier frequencies and eight time slots (0 ⁇ 7).
  • the service data is allocated to the non-primary carrier frequency board, the service data is first allocated to the three carrier frequencies corresponding to the first time slot (such as 0). After saturation, the service data is allocated to the next time slot (for example) until the service data is allocated.
  • the working carrier board where the carrier frequency is located is turned off in the time slot of the switchable carrier frequency in which all carrier frequencies are not allocated for service data, that is, in the time slot in which the carrier frequency is turned off. If the carrier frequency of the carrier board (including the primary carrier board and the non-primary carrier board) in a certain time slot is not allocated with the service data and is in an idle state, the carrier frequency is turned off in the time slot. Board to eliminate dimensions Static power consumption with the carrier board in operation.
  • the foregoing method for controlling multi-carrier frequency power amplifier resources scheduling channel resources of multiple carrier frequency power amplifiers from a time slot perspective, and increasing carriers of multiple carrier frequency powers in time slots of some loadable carrier frequencies The probability of an idle state occurs, and then the power-off control of the multi-carrier power amplifier is performed at the control granularity of the slot level, thereby achieving the purpose of reducing the static power consumption of the multi-carrier frequency power amplifier.
  • the energy-saving control method for the multi-carrier frequency power amplifier resource in the second embodiment of the present invention includes the following steps:
  • Step 201 Allocate service data to the primary carrier board, where if the working carrier frequency of the primary carrier board is allocated, the service data is allocated to the working carrier frequency of the non-primary carrier board, and the non-primary load
  • the working carrier frequency allocation service data of the frequency board includes: allocating service data to all carrier frequencies in one time slot of the non-primary carrier frequency board, and then allocating service data points to the working carrier frequency in another time slot;
  • Step 202 After the service data is allocated, the non-primary carrier board is turned off in an idle time slot, where the idle time slot means that all carrier frequencies of the carrier board are not in the time slot. Business data distribution.
  • the specific step of allocating service data to the main carrier board is based on whether the main carrier board can be turned off or not, and the time slot with the carrier frequency can be turned off.
  • the main carrier board cannot turn off the time slot of the carrier frequency. At this time, the main carrier board is not energy-saving controlled, and the service data can be allocated to the main carrier board according to specific needs.
  • the steps of allocating service data to the primary carrier board in the foregoing step 201 include:
  • Step 301a assigning a service data to the primary carrier frequency of the primary carrier board
  • Step 302a After the main carrier frequency of the main carrier board is allocated, all other non-primary carrier frequency allocation service data of the main carrier board is allocated.
  • the main carrier board cannot be turned off.
  • the main carrier frequency in the main carrier board needs to be always full-power transmission, or the main carrier in the main carrier board. All time slots of the frequency are used to transmit control signaling. Since the primary carrier board cannot be turned off, the main consideration is how to perform carrier channel resources according to factors such as the distance of the user from the base station, the user's instantaneous channel state, and the quality of service (QoS) of the bearer service. Scheduling.
  • the second case of allocating service data to the main carrier board is that the main carrier board has a time slot capable of turning off the carrier frequency, and the time slot of the off carrier frequency means In the time slot, if the primary carrier frequency board or the non-primary carrier frequency board can perform the shutdown operation when all carrier frequencies are idle; conversely, if the time slot of the primary carrier frequency is used to send control signaling, then No off-operation can be performed in the time slot regardless of whether other carrier frequencies of the main carrier board are idle.
  • the time slot is a time slot of the carrier frequency board (main carrier board) that cannot be turned off. Since each carrier frequency of the non-primary carrier frequency board is used to transmit service data, the non-primary carrier frequency board does not have a time slot in which the carrier frequency cannot be turned off.
  • the steps of allocating the service data to the primary carrier board in the foregoing step 201 include:
  • Step 301b Allocating non-primary carrier frequency allocation service data corresponding to a time slot used by the primary carrier board for transmitting control signaling to a time slot capable of turning off the carrier frequency;
  • Step 302b after allocating the non-primary carrier frequency corresponding to the time slot of the primary carrier board for transmitting control signaling, corresponding to other time slots used by the primary carrier board for transmitting service data
  • Allocating service data to the working carrier frequency corresponding to the other time slots of the primary carrier frequency board includes performing service data distribution to all carrier frequencies in the other time slots of the primary carrier frequency board.
  • the time slot for allocating the carrier frequency to the working carrier in another of the other time slots is then allocated to the time slot in which the carrier frequency can be turned off.
  • the time slot for transmitting the control signaling by the main carrier frequency board is a time slot in which the main carrier frequency board cannot be turned off, and the other time slots used by the main carrier frequency board for transmitting service data is to turn off the main The time slot of the carrier board.
  • the partial time slots of the primary carrier frequency such as the first four time slots, are used to send control signaling, and the time slots of the four transmission control signaling are the unstoppable carrier frequencies of the primary carrier frequency board.
  • Time slot therefore, preferentially assigning service data to other carrier frequencies corresponding to the time slots of the non-offable carrier frequency, Thereby increasing the probability that the working carrier channel is idle corresponding to other time slots that can turn off the carrier frequency.
  • the specific scheduling sequence of the primary carrier frequency board is: the first ⁇ corresponds to the identifier 1 in the circle in FIG. 7, and the service data is first allocated to the working carrier on the main carrier frequency board corresponding to the time slot of the non-stop carrier frequency.
  • the second ⁇ corresponds to the identifier 2 in the circle in the figure, and the remaining service data is allocated in the order of the time slot to the main carrier frequency and other carrier frequencies of the main carrier board corresponding to the time slot in which the carrier frequency can be turned off;
  • the foregoing step 202 allocates the remaining service data to the non-primary carrier frequency in the slot order.
  • the main carrier board After the service data is allocated, the following situations are also included: In the first case, if there is a free time slot in the time slot of the main carrier board that is not allocated service data, the main carrier board is turned off in the idle time slot, that is, the main carrier board service data processing If the capacity is greater than the service data to be processed, the case where the time slot of the main carrier board that can be turned off of the main carrier frequency board has a free time slot; in the second case, if the main carrier board is not available Turn off the non-primary corresponding to the time slot of the main carrier board After all the service data is allocated by the carrier frequency, the main carrier board is turned off in other time slots in which the main carrier board can be turned off, that is, if the main carrier board is used to transmit control signaling.
  • the primary carrier board is turned off in all time slots of the main carrier board that can be turned off; If the processing capacity of the primary carrier board is greater than the service data, all the service data is allocated to the primary carrier board and the non-primary carrier board is turned off.
  • step 201 if the working carrier frequency of the main carrier board is allocated, the service data is allocated to the working carrier frequency of the non-main carrier board, and the working carrier frequency of the non-main carrier board is allocated.
  • Allocating service data includes performing service data distribution to all carrier frequencies in one time slot of the non-primary carrier frequency board, and then allocating service data to the working carrier frequency in another time slot, where.
  • the above control method for the multi-carrier frequency power amplifier resource schedules the channel resources of the multi-carrier frequency power amplifier from the perspective of the time slot, and increases the probability that the carrier with multiple carrier frequency powers will appear idle state in some time slots capable of turning off the carrier frequency. Then, the power-off control of the multi-carrier power amplifier is performed at the control granularity of the slot level, thereby achieving the purpose of reducing the static power consumption of the multi-carrier frequency power amplifier.
  • a third embodiment of the present invention provides a multi-carrier power amplifier resource control apparatus corresponding to the first embodiment, including a data distribution unit and an energy-saving control unit, where: the data distribution unit is used for Allocating service data to a working carrier frequency in a time slot in which the carrier frequency cannot be turned off, and after the service data is allocated to the working carrier frequency in the time slot of the non-stop carrier frequency, to the time when the carrier frequency can be turned off Allocating the service data in a working carrier frequency within the slot, the allocating the service data to a working carrier frequency in a time slot in which the carrier frequency can be turned off includes allocating service data to all working carrier frequencies in the time slot The service data is then allocated to the working carrier frequency in another of the time slots.
  • the working carrier frequency in the time slot of the non-stop carrier frequency is the non-primary carrier frequency corresponding to the time slot of the primary carrier frequency for transmitting control signaling.
  • the data distribution unit allocates the service data to a working carrier frequency in a time slot in which the carrier frequency can be turned off, including a working carrier frequency and a non-main carrier frequency corresponding to a time slot on the main carrier board that can be turned off.
  • the working frequency of the board is assigned to the service data.
  • the working carrier frequency of the main carrier board corresponding to the time slot of the switchable carrier frequency and the working carrier frequency of the non-main carrier frequency board are allocated service data, and the main channel corresponding to the time slot of the switchable carrier frequency is included. After the working carrier frequency of the carrier frequency board is allocated, the service data is allocated to the working carrier frequency of the non-main carrier frequency board corresponding to the time slot of the switchable carrier frequency.
  • the time slot of the primary carrier frequency for transmitting control signaling is a time slot in which the primary carrier frequency board cannot be turned off, and the time slot used by the primary carrier for transmitting service data is that the primary carrier frequency board can be turned off. Time slot.
  • the energy saving control unit is configured to: after the service data is allocated, turn off the working carrier board where the carrier frequency is located in a time slot of the switchable carrier frequency in which all carrier frequencies are not allocated by the service data.
  • the energy-saving control device of the multi-carrier frequency power amplifier resource allocates the service data to be processed from the latitude of the time slot to the working carrier frequency corresponding to the time slot of the switchable carrier frequency, so that the carrier frequency can be turned off.
  • the service data is allocated according to the method of distributing the service data provided by the energy-saving control device, as long as the processing or load capacity of the multi-carrier amplifier is greater than necessary Processing business data, it must However, there is no case where no service data is allocated to the carrier frequency in the time slot in which the carrier frequency can be turned off, thereby effectively improving the energy saving efficiency of the carrier board slot turn-off.
  • the fourth embodiment of the present invention provides an energy-saving control apparatus for a multi-carrier frequency power amplifier resource corresponding to the second embodiment, including a data distribution unit and an energy-saving control unit, where: the data distribution unit is configured to The main carrier board allocates service data, wherein if the working carrier frequency of the main carrier board is allocated, the service data is allocated to the working carrier frequency of the non-main carrier board, and the non-main carrier board is allocated to the non-main carrier board
  • the working carrier frequency allocation service data includes: after allocating service data to all carrier frequencies in one time slot of the non-primary carrier frequency board, and then allocating service data to the working carrier frequency in another time slot;
  • the energy saving control unit is configured to turn off the non-primary carrier frequency board in an idle time slot after the service data is allocated, where the idle time slot refers to all the carrier frequency boards in the time slot. There is no service data allocation for the carrier frequency.
  • the allocating service data to the primary carrier board by the data distribution unit includes first allocating service data to a non-primary carrier frequency corresponding to a time slot used by the primary carrier board to send control signaling; if the primary carrier frequency is allocated After the board is configured to send the non-primary carrier frequency corresponding to the time slot of the control signaling, the service data is allocated to the working carrier frequency corresponding to the other time slots used by the primary carrier board for transmitting the service data, and the The working carrier frequency allocation service data corresponding to other time slots of the primary carrier frequency board includes performing service data distribution to all carrier frequencies in the other time slots of the primary carrier frequency board and then to another one of the other time slots. Work carrier frequency allocation service.
  • the time slot of the primary carrier board for transmitting control signaling is a time slot in which the primary carrier frequency board cannot be turned off, and the other time slots used by the primary carrier frequency board to transmit service data are capable of being turned off.
  • the time slot of the main carrier board is a time slot in which the primary carrier frequency board cannot be turned off, and the other time slots used by the primary carrier frequency board to transmit service data are capable of being turned off.
  • the data distribution unit After the data distribution unit allocates the service data, if the idle time slot in which the service data is not allocated exists in the time slot of the switchable main carrier frequency board, the main load is turned off in the idle time slot. Frequency board. If the data distribution unit allocates all service data to the non-primary carrier frequency corresponding to the time slot of the main carrier board and the non-offtable main carrier board, in other time slots of the main carrier board that can be turned off Turn off the main carrier board.
  • processing capacity of the primary carrier board is greater than the service data, all the service data is allocated to the primary carrier board and the non-primary carrier board is turned off.
  • the first data distribution unit of the energy-saving control device of the multi-carrier frequency power amplifier resource first allocates the service data to other carrier frequencies corresponding to the time slots of the main carrier board that cannot turn off the carrier frequency, after the distribution and the main After the carrier frequency board cannot turn off the other carrier frequencies corresponding to the time slots of the carrier frequency, the remaining service data is allocated in the order of the time slots to the primary carrier frequency and other carriers of the primary carrier frequency board corresponding to the time slots of the switchable carrier frequency. frequency.
  • the energy-saving control module first traverses the time slots of the main carrier frequency that can be turned off, and turns off the main carrier board in the idle time slot of the time slot in which the carrier frequency can be turned off; and traverses the non-main frequency board In each time slot, the non-primary carrier frequency board is turned off in the idle time slot, thereby improving the energy saving efficiency of the time slot shutdown by reasonable allocation of power amplifier resources.
  • a fifth embodiment of the present invention provides a base station, including a plurality of sectors, each sector includes a multi-carrier frequency power amplifier, and the multi-carrier frequency power amplifier is configured to carry multiple carrier frequency bands and send the same to the terminal.
  • each sector includes a control device for a multi-carrier frequency power amplifier resource, and the multi-carrier frequency power resource control device is configured to allocate service data to a working carrier frequency in a time slot of the non-stop carrier frequency, and After the service data is allocated to the working carrier frequency in the time slot in which the carrier frequency cannot be turned off, the service data is allocated to the working carrier frequency in the time slot in which the carrier frequency can be turned off, and the time when the carrier frequency can be turned off Assigning the traffic data to the working carrier within the slot includes allocating traffic data to all of the working carrier frequencies within the time slot and then allocating traffic data to the working carrier frequency in the other of the time slots.
  • the number of the above sectors may be different in specific applications, in order to facilitate display, in this case
  • the similar service data is allocated to be transmitted in different time slots to avoid mutual interference affecting the transmission quality.
  • the same type of service data of each cell is processed on different time slots, and the channel traversal sequence of the time slots of each sector that can be turned off can be dynamically and randomly adjusted, so that the most concentrated time slot number of each sector service is obtained. Staggered, thereby reducing interference between sectors, so that the interference of the entire GSM system is equalized, thereby obtaining better network performance and energy saving effect.

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Abstract

本发明实施例提供一种多载频功放资源的控制方法以及装置,通过先将业务数据分配至主载频板;再判断如果分配完所述主载频板的信道资源块,将剩余的业务数据按时隙顺序分配至非主载频板,如果所述业务数据未能分配完所述主载频板则跳过本歩骤;调度完所述业务数据后,对可关断载频的时隙的主载频板和非主载频板启动节能操作,以消除功放的静态功耗。上述方法以及装置从时隙的角度对多载频功放的信道资源进行调度,增加多载频功的载波在一些可关断载频的时隙下出现空闲状态的几率,然后再以时隙级的控制粒度对多载波功放进行电源关断控制,从而达到减少多载频功放的静态功耗浪费的目的。

Description

多载频功放资源的控制方法以及装置 技术领域 本发明涉及通信技术领域, 尤其涉及一种多载频功放资源的控制方法 以及装置。 背景技术
无线通信网经过二十多年的发展, 目前已有数量庞大的设备在网上运 行, 并且网络规模仍以较快速度持续增长, 大配置站型所占比例越来越大。 随着技术的发展, 多载波技术在 GSM(Global System of Mobile communication, 全球移云力通信系统)禾口 WCDMA(Wideband Code Division Multiple Address, 宽带码分多址)中得到普遍应用。
现有的射频拉远单元 (RRU) 是无线通信系统中基站设备的一种重要 形态, 一般包括功放单元和射频小信号处理单元, 其中功放单元一般设计 为多载波功放的方式。 具体来说, 多载波功放是指同一个无线系统或者多 种无线系统中, 能够承载多个载波频段的功率放大器。 此类多载波功放的 主要特点包括: 可以支撑多个载波同时进行空口传输, 能够实现多个载波 之间的功率共享; 由于受到了功放最大发射功率的限制, 一般来说, 载波 数量越多, 能够配置的每载波最大发射功率也会相应降低; 多载波功放一 般设计成宽带功放的方式, 即能够在很大的频段上实现功率的放大。
在多载波功放中, 功放管是载频中向天馈发射功率的主要器件, 它的 功耗有静态和动态两部分组成。 由于功放的非线性特性限制, 即使它不发 射功率, 也需要施加一个固定的偏置电压, 目的是使得功放工作在线性区 域, 随时准备发射功率, 这部分消耗的功耗就叫做静态功耗。 功放功耗还 包括另外一部分功耗, 即动态功耗, 动态功耗取决于时隙是否被占用, 如 果时隙上有话务, 功放必然要进行功率发射, 此时相对静态功耗增加的部 分就是动态功耗, 且载频输出功率越高动态功耗越高; 若无话务, 功放的 动态功耗为 0, 仅有静态功耗。
如图 1所示, 功放管在 181到187的七个时隙内的能耗情况,其中功放 管处于工作状态的时隙下, 能耗为动态能耗加上静态能耗两部分, 而当功 放管处于空闲状态的时隙内时, 功放管依然存在静态能耗, 即动态功耗为 0 的情况下,只有进一歩关断功放,消除静态功耗后,整个功放的功耗才为 0。
在通信系统中, 按配置的载波数, 功放可以分为单载波功放和多载波 功放。 单载波功放即功放上仅配有一个载波, 多载波功放指一个功放上配 置 2个或更多的载波数。 当一个通信系统中配有多个多载波功放时, 一般 可以将功放分为主载频板和非主载频板; 主载频板上的资源块部分用来发 送系统的控制信令, 剩余的资源块用来发送业务; 非主载频板上的资源块 仅用来发送业务。
现有的功放电源控制机制, 是在没有话务时间段 (如时隙) 内, 即功 放的处理资源模块或信道资源处于空闲状态而动态功耗为 0 的情况下, 进 一歩在该时间段内关断功放, 关断后的静态功耗以及整个功放的功耗均为 0。
然而, 现有的这种时隙关断的功放电源控制技术仅适用于单载波, 对 于多载波功放, 需要功放所在的所有载波在某一时隙内均处于空闲状态时, 该功放才能够进行时隙级的关断。 由于多载波功放具有多个载频, 因此在 某个特定时隙上, 多载频功放的所有载波都出现空闲的概率相对于单载波 设备来说会是非常小, 大大影响了多载波设备关断的效率, 难于达到节能 目的。 发明内容
本发明实施例提供一种多载频功放资源的控制方法以及装置, 从时隙 的纬度进行功放资源的分配, 以增加同一时隙内出现载频板的全部载频空 闲的几率, 从而增加载频板的关断时长提高节能效率。
本发明实施例提供一种多载频功放资源的控制方法, 主要包括向不可 关断载频的时隙内的工作载频分配业务数据; 然后, 在所述向不可关断载 频的时隙内的工作载频分配业务数据完成后, 向可关断载频的时隙内的工 作载频分配所述业务数据, 所述向可关断载频的时隙内的工作载频分配所 述业务数据包括向一所述时隙内的所有工作载频分配业务数据后再向另一 所述时隙内的工作载频分配业务数据。
本发明实施例提供一种多载频功放资源的节能控制方法, 所述方法包 括向主载频板分配业务数据, 其中如果所述主载频板的工作载频分配完后, 则向非主载频板的工作载频分配业务数据, 所述向所述非主载频板的工作 载频分配业务数据包括完成向所述非主载频板一时隙内所有载频分配业务 数据后再向另一时隙内的工作载频分配业务数据; 然后在所述业务数据分 配完之后, 在空闲时隙内关断所述非主载频板, 所述空闲时隙是指在所述 时隙内, 载频板的所有载频均没有业务数据分配。
本发明实施例提供一种多载频功放资源的控制装置, 包括数据分配单 元以及节能控制单元, 数据分配单元用于向不可关断载频的时隙内的工作 载频分配业务数据之后, 在所述向不可关断载频的时隙内的工作载频分配 业务数据完成后, 向可关断载频的时隙内的工作载频分配所述业务数据, 所述向可关断载频的时隙内的工作载频分配所述业务数据包括向一所述时 隙内的所有工作载频分配业务数据后再向另一所述时隙内的工作载频分配 业务数据。
本发明实施例提供一种多载频功放资源的节能控制装置包括数据分配 单元以及节能控制单元, 其中所述数据分配单元用于向主载频板分配业务 数据, 其中如果所述主载频板的工作载频分配完后, 则向非主载频板的工 作载频分配业务数据, 所述向所述非主载频板的工作载频分配业务数据包 括完成向所述非主载频板一时隙内所有载频分配业务数据后再向另一时隙 内的工作载频分配业务数据; 所述节能控制单元用于在所述业务数据分配 完之后, 在空闲时隙内关断所述非主载频板, 所述空闲时隙是指在所述时 隙内, 载频板的所有载频均没有业务数据分配。
本发明实施例提供了一种基站, 所述基站包括若干扇区, 每一扇区包 括多载频功放与多载频功放资源的控制装置, 所述多载频功放用于承载多 个载波频段并向终端发送数据信号; 所述多载频功放资源控制装置用于向 不可关断载频的时隙内的工作载频分配业务数据, 并在所述向不可关断载 频的时隙内的工作载频分配业务数据完成后, 向可关断载频的时隙内的工 作载频分配所述业务数据, 所述向可关断载频的时隙内的工作载频分配所 述业务数据包括向一所述时隙内的所有工作载频分配业务数据后再向另一 所述时隙内的工作载频分配业务数据。
上述本发明实施例提供的多载频功放资源的控制方法、 装置以及基站, 从时隙的角度对多载频功放的信道资源进行调度, 增加多载频功的载波在 一些可关断载频的时隙下出现空闲状态的几率, 然后再以时隙级的控制粒 度对多载波功放进行电源关断控制, 从而达到减少多载频功放的静态功耗 浪费的目的。 附图说明
图 1所示为现有技术中功放管的能耗示意图。
图 2所示为本发明实施例中的多载频功放中多载频信道资源的示意图。 图 3所示为本发明实施例一中多载频功放资源的控制方法的流程图。 图 4所示为本发明实施例一中多载频功放资源的控制方法的示意图。 图 5所示为本发明实施例二中多载频功放资源的节能控制方法的流程 图。
图 6所示为本发明实施例二中将业务数据分配至主载频板的一流程图。 图 7所示为图 6中将业务数据分配至主载频板的一示意图。 图 8所示为本发明实施例二中将业务数据分配至主载频板的另一流程 图 9所示为应用本发明实施例多载频功放资源的控制装置的基站示意 图 10所示为本发明实施例三中多载频功放资源的控制装置示意图。 图 11 所示为本发明实施例四中多载频功放资源的节能控制装置示意 图 12所示为本发明实施例五中基站的示意图。 具体实施方式
下面将结合本发明实施例中的附图, 对本发明实施例中的技术方案进 行清楚、 完整地描述, 显然, 所描述的实施例仅仅是本发明一部分实施例, 而不是全部的实施例。 基于本发明中的实施例, 本领域技术人员所获得的 所有其他实施例, 都属于本发明保护的范围。
本发明实施例提供一种多载频功放资源的控制方法以及装置, 从时隙 的角度对多载频功放的信道资源进行调度, 增加多载频功的载波在一些可 关断载频的时隙下出现空闲状态的几率, 让后再以时隙级的控制粒度对多 载波功放进行电源关断控制, 从而达到减少多载频功放的静态功耗浪费的 目的。
在本发明实施例中, 上述多载频功放资源的控制方法可应用于 GSM、
WCDMA、 LTE、 UMTS等 2G或 3G系统中, 对多载频功放的信道资源块 进行调度。 如图 2所示为多载频功放中的多载频信道资源, 其中主 B板代 表主载频板、 非主 B板代表非主载频板、 C代表控制信令、 T代表业务数 据、 数字 0~7代表时隙顺序。 所述多载频功放包括主载频板和非主载频板, 所述主载频板为主载频所在的工作载频板, 主载频有部分或者全部时隙用 于发送系统的控制信令, 其中主载频发送控制信令的时隙为所述主载频板 的不可关断载频的时隙, 也就是在该时隙内主载频板不能关闭。 主载频板 的主载频的其它时隙以及其它非主载频用于发送业务数据, 当这些时隙对 应的各载频均空闲时, 可在该空闲时隙内关闭主载频板, 以节约载频板的 静态功耗。 非主载频板的各个载频用于发送业务数据, 为可关断载频的时 隙的工作载频板。
实施例一
如图 3所示, 本发明实施例一多载频功放资源的控制方法, 包括以下 歩骤:
歩骤 101、 向不可关断载频的时隙内的工作载频分配业务数据; 歩骤 102、在所述向不可关断载频的时隙内的工作载频分配业务数据完 成后, 向可关断载频的时隙内的工作载频分配所述业务数据, 所述向可关 断载频的时隙内的工作载频分配所述业务数据包括向一所述时隙内的所有 工作载频分配业务数据后再向另一所述时隙内的工作载频分配业务数据; 歩骤 103、在所有载频均没有业务数据分配的可关断载频的时隙内关断 所述载频所在的工作载频板。
请一并参阅图 2, 上述歩骤 101中, 所述不可关断载频的时隙内的工作 载频是指主载频板上与主载频用于发送控制信令的时隙对应的非主载频。 所述主载频用于发送控制信令的时隙为所述主载频板不可关断的时隙, 该 时隙内, 主载频板的主载频用于发送控制信令, 因此在该时隙内, 即使所 有非主载频均处于空闲状态(没有被分配业务数据),主载频也不能被关断。 对于非主载频板来说, 非主载频板的所有载频均用于发送业务数据, 因此 所有时隙均属于可关断载频板的时隙, 而所述主载用于发送业务数据的时 隙也为所述主载频板可关断的时隙。
上述性能分析方法中先向主载频板中不可关断载频的时隙对应的非载 频分配业务数据可以提高主载频板的有效利用率并同时节省维持主载频板 的静态功耗。 因为, 在主载频板不可关断载频的时隙内, 无论这些时隙内 非主载频是否空闲, 均不能进行载频板关断的操作, 所以, 将业务数据优 先分配给这些时隙内的非主载频就会加大载频板 (包括主载频板和非主载 频板) 在可关断载频的时隙内出现所有载频空闲的几率, 从而提高时隙级 关断的节能效率。 如图 4所示, 上述歩骤 102中, 在完成向不可关断载频 的时隙内的工作载频分配业务数据之后(对应图中圆圈内的标记 1的歩骤), 所述向可关断载频的时隙内的工作载频分配所述业务数据主要是指向主载 频板上与可关断载频的时隙对应的工作载频和非主载频板的工作载频分配 业务数据。 所述向可关断载频的时隙对应的主载频板的工作载频和非主载 频板的工作载频分配业务数据的具体顺序为在所述与可关断载频的时隙对 应的主载频板的工作载频分配 (对应图中圆圈内的标记 2 的歩骤) 完后, 再向所述与可关断载频的时隙对应非主载频板的工作载频分配业务数据 (对应图中圆圈内的标记 3的歩骤)。 如果主载频板的处理能力大于需要处 理的业务数据, 也就是业务数据不足以占据完所述主载频板的工作载频资 源时, 所述非主载频板可以在一个时间周期的所有时隙内都一直保持关断 状态, 有效节省静态能耗。
此外, 上述歩骤 102 中, 所述向可关断载频的时隙内的工作载频分配 所述业务数据包括向一所述时隙内的所有工作载频分配业务数据后再向另 一所述时隙内的工作载频分配业务数据, 也就是说从时隙的纬度将业务数 据分配给各个可关断载频的时隙对应的所有载频, 例如, 如图 4所示, 非 主载频板有三个载频、 8个时隙 (0〜7 ), 向非主载频板分配业务数据时, 先向对应第一个时隙(如 0 )的三个载频分配业务数据, 饱和后再向下一个 时隙 (如) 分配业务数据, 直到所述业务数据被分配完。
上述歩骤 103 中, 在所有载频均没有业务数据分配的可关断载频的时 隙内关断所述载频所在的工作载频板, 也就是说在关断载频的时隙中, 如 果某个时隙内载频板 (包括主载频板和非主载频板) 的所有载频均没有被 分配业务数据而处于空闲状态, 则在该时隙内关断所述载频板, 以消除维 持载频板处于工作状态的静态功耗。
上述本发明实施例提供的多载频功放资源的控制方法, 从时隙的角度 对多载频功放的信道资源进行调度, 增加多载频功的载波在一些可关断载 频的时隙下出现空闲状态的几率, 然后再以时隙级的控制粒度对多载波功 放进行电源关断控制, 从而达到减少多载频功放的静态功耗浪费的目的。
实施例二
如图 5所示, 本发明实施例二多载频功放资源的节能控制方法, 包括 以下歩骤:
歩骤 201、 向主载频板分配业务数据, 其中如果所述主载频板的工作载 频分配完后, 则向非主载频板的工作载频分配业务数据, 所述向非主载频 板的工作载频分配业务数据包括完成向所述非主载频板一时隙内所有载频 分配业务数据后再向另一时隙内的工作载频分配业务数据分;
歩骤 202、所述业务数据分配完之后, 在空闲时隙内关断所述非主载频 板, 所述空闲时隙是指在所述时隙内, 载频板的所有载频均没有业务数据 分配。
上述歩骤 201 中, 向主载频板分配业务数据的具体歩骤基于主载频板 是否可关断而具有可关断载频的时隙两种情况。
第一种情况是上述主载频板不可关断载频的时隙, 此时不对主载频板 进行节能控制, 业务数据可以根据具体需要分配至主载频板上。
如图 6和 7所示, 上述歩骤 201中向主载频板分配业务数据分配至的 歩骤包括:
歩骤 301a、 分配至向主载频板的主载频分配业务数据调;
歩骤 302a、 所述主载频板的主载频分配完后, 向所述主载频板的其它 非主载频分配业务数据分配至。
在实际应用的一些场景下, 所述主载频板不能关断, 例如, 为了保证 覆盖, 主载频板中的主载频需要一直保持满功率发射, 或主载频板中主载 频的所有时隙均用于发送控制信令。 由于主载频板不可关断, 因此, 主要 考虑如何根据无线信道的变化, 如根据用户离基站的远近、 用户即时信道 状态、 承载业务的服务质量需求 (QoS ) 等因素, 进行载频信道资源调度。
上述歩骤 201 中, 向主载频板分配业务数据的第二种情况是所述主载 频板具有可关断载频的时隙, 所述可关断载频的时隙是指在某时隙内, 如 果主载频板或非主载频板在所有载频均空闲的情况下可以进行关断操作; 反之, 如果主载频的该时隙用于发送控制信令, 则在该时隙内无论主载频 板的其它载频是否空闲, 都不能进行关断操作, 该时隙为载频板 (主载频 板) 的不可关断载频的时隙。 由于非主载频板的各个载频均用于发送业务 数据, 因此非主载频板不存在不可关断载频的时隙。
如图 8所示, 上述主载频板可关断载频的时隙时, 上述歩骤 201 中将 业务数据分配至主载频板的歩骤包括:
歩骤 301b、 向与所述主载频板用于发送控制信令的时隙对应的非主载 频分配业务数据分配至可关断载频的时隙;
歩骤 302b、 如果分配完所述主载频板用于发送控制信令的时隙对应的 非主载频后, 则向与所述主载频板用于发送业务数据的其它时隙对应的工 作载频分配业务数据, 所述向与所述主载频板其它时隙对应的工作载频分 配业务数据包括完成向所述主载频板一所述其它时隙内所有载频分配业务 数据后再向另一所述其它时隙内的工作载频分配业务可关断载频的时隙分 配至可关断载频的时隙。
上述主载频板用于发送控制信令的时隙为不可关断所述主载频板的时 隙, 所述主载频板用于发送业务数据的其它时隙为可关断所述主载频板的 时隙。
如图 4所示, 上述主载频的部分时隙, 如前 4个时隙用于发送控制信 令, 则该 4个发送控制信令的时隙为主载频板的不可关断载频的时隙, 因 此, 优先将业务数据分配至与所述不可关断载频的时隙对应的其它载频上, 从而增加与其它可关断载频的时隙对应的工作载频信道空闲的几率。 所述 主载频板具体调度顺序是, 第一歩与图 7中的圆圈内的标识 1对应, 先将 业务数据分配至不可关断载频的时隙对应的主载频板上的工作载频; 第二 歩与图中圆圈内的标识 2对应, 将剩余业务数据按时隙的顺序分配至与可 关断载频的时隙对应的主载频板的主载频和其它载频; 然后对应图中圆圈 内标识 3的是上述歩骤 202将剩余的业务数据按时隙顺序分配至非主载频 上述所述业务数据分配完之后还包括以下几种情形: 第一种情形, 如 果所述可关断主载频板的时隙中存在没有分配业务数据的空闲时隙, 则在 所述空闲时隙内关断所述主载频板, 也就是说所述主载频板业务数据处理 能力大于所需要处理的业务数据, 则出现所述主载频板的可关断主载频板 的时隙存在空闲时隙的情况; 第二种情形, 如果向所述主载频板与不可关 断主载频板的时隙对应的非主载频分配完所有业务数据, 则在可关断主载 频板的其它时隙内关断所述主载频板, 也就是说如果与所述主载频板用于 发送控制信令的时隙对应的非主载频的业务数据处理能力大于需要处理的 所述业务数据, 则在所有可关断主载频板的时隙内关断所述主载频板; 第 三种情形, 如果所述主载频板的处理能力大于所述业务数据, 则将所述业 务数据全部分配给所述主载频板并关断所述非主载频板。
上述歩骤 201 中, 如果所述主载频板的工作载频分配完后, 则向非主 载频板的工作载频分配业务数据, 所述向所述非主载频板的工作载频分配 业务数据包括完成向所述非主载频板一时隙内所有载频分配业务数据后再 向另一时隙内的工作载频分配业务数据, 其中。
上述多载频功放资源的控制方法, 从时隙的角度对多载频功放的信道 资源进行调度, 增加多载频功的载波在一些可关断载频的时隙下出现空闲 状态的几率, 然后再以时隙级的控制粒度对多载波功放进行电源关断控制, 从而达到减少多载频功放的静态功耗浪费的目的。 实施例三
如图 9和 10所示, 本发明实施例三提供与上述实施例一对应的一种多 载频功放资源的控制装置, 包括数据分配单元以及节能控制单元, 其中: 所述数据分配单元用于向不可关断载频的时隙内的工作载频分配业务 数据, 并在所述向不可关断载频的时隙内的工作载频分配业务数据完成后, 向可关断载频的时隙内的工作载频分配所述业务数据, 所述向可关断载频 的时隙内的工作载频分配所述业务数据包括向一所述时隙内的所有工作载 频分配业务数据后再向另一所述时隙内的工作载频分配业务数据。
所述不可关断载频的时隙内的工作载频为主载频板上与主载频用于发 送控制信令的时隙对应的非主载频。
所述数据分配单元向可关断载频的时隙内的工作载频分配所述业务数 据包括向主载频板上与可关断载频的时隙对应的工作载频和非主载频板的 工作载频分配业务数据。
所述向可关断载频的时隙对应的主载频板的工作载频和非主载频板的 工作载频分配业务数据包括在所述与可关断载频的时隙对应的主载频板的 工作载频分配完后, 再向所述与可关断载频的时隙对应非主载频板的工作 载频分配业务数据。
所述主载频用于发送控制信令的时隙为所述主载频板不可关断的时 隙, 所述主载用于发送业务数据的时隙为所述主载频板可关断的时隙。
所述节能控制单元用于在所述业务数据分配完后, 在所有载频均没有 业务数据分配的可关断载频的时隙内关断所述载频所在的工作载频板。
可见, 上述多载频功放资源的节能控制装置从时隙的纬度将需要处理 的业务数据分配至各个与可关断载频的时隙对应的工作载频上, 使得可关 断载频的时隙内的所有载频出现没有业务数据分配的几率显著增加, 可以 说如果按所述节能控制装置提供的业务数据的分配方法进行业务数据分 配, 只要多载频功放的处理或者负荷能力大于所需处理的业务数据, 则必 然出现没有可关断载频的时隙内没有业务数据分配给载频的情况, 从而有 效提高载频板时隙关断的节能效率。
实施例四
如图 11所示, 本发明实施例四提供与上述实施例二对应的一种多载频 功放资源的节能控制装置, 包括数据分配单元以及节能控制单元, 其中: 所述数据分配单元用于向主载频板分配业务数据, 其中如果所述主载 频板的工作载频分配完后, 则向非主载频板的工作载频分配业务数据, 所 述向所述非主载频板的工作载频分配业务数据包括完成向所述非主载频板 一时隙内所有载频分配业务数据后再向另一时隙内的工作载频分配业务数 据;
所述节能控制单元用于在所述业务数据分配完之后, 在空闲时隙内关 断所述非主载频板, 所述空闲时隙是指在所述时隙内, 载频板的所有载频 均没有业务数据分配。
所述数据分配单元向主载频板分配业务数据包括先向与所述主载频板 用于发送控制信令的时隙对应的非主载频分配业务数据; 如果分配完所述 主载频板用于发送控制信令的时隙对应的非主载频后, 则向与所述主载频 板用于发送业务数据的其它时隙对应的工作载频分配业务数据, 所述向与 所述主载频板其它时隙对应的工作载频分配业务数据包括完成向所述主载 频板一所述其它时隙内所有载频分配业务数据后再向另一所述其它时隙内 的工作载频分配业务。
所述主载频板用于发送控制信令的时隙为不可关断所述主载频板的时 隙, 所述主载频板用于发送业务数据的其它时隙为可关断所述主载频板的 时隙。
所述数据分配单元分配完业务数据之后还包括如果所述可关断主载频 板的时隙中存在没有分配业务数据的空闲时隙, 则在所述空闲时隙内关断 所述主载频板。 如果所述数据分配单元向所述主载频板与不可关断主载频板的时隙对 应的非主载频分配完所有业务数据, 则在可关断主载频板的其它时隙内关 断所述主载频板。
如果所述主载频板的处理能力大于所述业务数据, 则将所述业务数据 全部分配给所述主载频板并关断所述非主载频板。
可见, 上述多载频功放资源的节能控制装置的所述第一数据分配单元 先将业务数据分配至与主载频板不可关断载频的时隙对应的其它载频, 在 分配完与主载频板不可关断载频的时隙对应的其它载频后, 将剩余业务数 据按时隙的顺序分配至与可关断载频的时隙对应的主载频板的主载频和其 它载频。 所述节能控制模块先遍历主载频的各个可关断载频的时隙, 在可 关断载频的时隙的空闲时隙内关断主载频板; 再遍历所述非主频板的各个 时隙, 在空闲时隙内关断所述非主载频板, 从而通过功放资源的合理分配 来提高时隙关断的节能效率。
实施例五
如图 9和 11所示, 本发明实施例五提供一种基站, 包括若干扇区, 每 一扇区包括多载频功放, 所述多载频功放用于承载多个载波频段并向终端 发送数据信号, 每一扇区包括多载频功放资源的控制装置, 所述多载频功 放资源控制装置用于向不可关断载频的时隙内的工作载频分配业务数据, 并在所述向不可关断载频的时隙内的工作载频分配业务数据完成后, 向可 关断载频的时隙内的工作载频分配所述业务数据, 所述向可关断载频的时 隙内的工作载频分配所述业务数据包括向一所述时隙内的所有工作载频分 配业务数据后再向另一所述时隙内的工作载频分配业务数据。
上述扇区的数量可以在具体的应用中各有不同, 为便于显示, 在本实 的相似业务数据分配在不同的时隙来进行发送, 以避免相互干扰影响发送 质量。 这样各小区的同类业务数据放在不同的时隙上处理, 并可以动态随 机调整各扇区的可关断载频的时隙的信道遍历顺序, 使得各扇区的业务最 集中的时隙号错开, 从而降低扇区间的干扰, 使得整个 GSM系统的干扰均 化, 进而获得更好的网络性能及节能效果。
以上对本发明实施例提供的通信系统进行了详细介绍, 本文中应用了 具体个例对本发明的原理及实施方式进行了阐述, 以上实施例的说明只是 用于帮助理解本发明的方法及其核心思想; 同时, 对于本领域的一般技术 人员, 依据本发明的思想, 在具体实施方式及应用范围上均会有改变之处, 综上所述, 本说明书内容不应理解为对本发明的限制。

Claims

权利要求
1、 一种多载频功放资源的控制方法, 其特征在于, 所述方法包括: 向不可关断载频的时隙内的工作载频分配业务数据;
在所述向不可关断载频的时隙内的工作载频分配业务数据完成后, 向 可关断载频的时隙内的工作载频分配所述业务数据, 所述向可关断载频的 时隙内的工作载频分配所述业务数据包括向一所述时隙内的所有工作载频 分配业务数据后再向另一所述时隙内的工作载频分配业务数据。
2、 根据权利要求 1所述的方法, 其特征在于, 所述不可关断载频的时 隙内的工作载频为主载频板上与主载频用于发送控制信令的时隙对应的非 主载频。
3、 根据权利要求 1所述的方法, 其特征在于, 所述向可关断载频的时 隙内的工作载频分配所述业务数据包括向主载频板上与可关断载频的时隙 对应的工作载频和非主载频板的工作载频分配业务数据。
4、 根据权利要求 3所述的方法, 其特征在于, 所述向可关断载频的时 隙对应的主载频板的工作载频和非主载频板的工作载频分配业务数据包括 在所述与可关断载频的时隙对应的主载频板的工作载频分配完后, 再向所 述与可关断载频的时隙对应非主载频板的工作载频分配业务数据。
5、 根据权利要求 2至 4任一项所述的方法, 其特征在于, 所述主载频 用于发送控制信令的时隙为所述主载频板不可关断的时隙, 所述主载频用 于发送业务数据的时隙为所述主载频板可关断的时隙。
6、 根据权利要求 1至 4任一项所述的方法, 其特征在于, 还包括所述 业务数据分配完后, 在所有载频均没有业务数据分配的可关断载频的时隙 内关断所述载频所在的工作载频板。
7、一种多载频功放资源的节能控制方法,其特征在于,所述方法包括: 向主载频板分配业务数据, 其中如果所述主载频板的工作载频分配完 后, 则向非主载频板的工作载频分配业务数据, 所述向非主载频板的工作 载频分配业务数据包括完成向所述非主载频板一时隙内所有载频分配业务 数据后再向另一时隙内的工作载频分配业务数据;
所述业务数据分配完之后, 在空闲时隙内关断所述非主载频板, 所述 空闲时隙是指在所述时隙内, 载频板的所有载频均没有业务数据分配。
8、 根据权利要求 7所述的方法, 其特征在于, 所述向主载频板分配业 务数据包括:
向与所述主载频板用于发送控制信令的时隙对应的非主载频分配业务 数据;
如果分配完所述主载频板用于发送控制信令的时隙对应的非主载频 后, 则向与所述主载频板用于发送业务数据的其它时隙对应的工作载频分 配业务数据, 所述向与所述主载频板其它时隙对应的工作载频分配业务数 据包括完成向所述主载频板一所述其它时隙内所有载频分配业务数据后再 向另一所述其它时隙内的工作载频分配业务。
9、 根据权利要求 8所述的方法, 其特征在于, 所述主载频板用于发送 控制信令的时隙为不可关断所述主载频板的时隙, 所述主载频板用于发送 业务数据的其它时隙为可关断所述主载频板的时隙。
10、 根据权利要求 7至 9任一项所述的方法, 其特征在于, 如果所述 主载频板的处理能力大于所述业务数据, 则将所述业务数据全部分配给所 述主载频板并关断所述非主载频板。
11、 根据权利要求 10所述的方法, 其特征在于, 所述业务数据分配完 之后还包括如果所述可关断主载频板的时隙中存在没有分配业务数据的空 闲时隙, 则在所述空闲时隙内关断所述主载频板。
12、 根据权利要求 10所述的方法, 其特征在于, 如果向所述主载频板 与不可关断主载频板的时隙对应的非主载频分配完所有业务数据, 则在可 关断主载频板的其它时隙内关断所述主载频板。
13、 一种多载频功放资源的控制装置, 其特征在于, 包括: 数据分配单元, 用于向不可关断载频的时隙内的工作载频分配业务数 据, 并在所述向不可关断载频的时隙内的工作载频分配业务数据完成后, 向可关断载频的时隙内的工作载频分配所述业务数据, 所述向可关断载频 的时隙内的工作载频分配所述业务数据包括向一所述时隙内的所有工作载 频分配业务数据后再向另一所述时隙内的工作载频分配业务数据。
14、 根据权利要求 13所述的装置, 其特征在于, 所述不可关断载频的 时隙内的工作载频为主载频板上与主载频用于发送控制信令的时隙对应的 非主载频。
15、 根据权利要求 14所述的装置, 其特征在于, 所述数据分配单元向 可关断载频的时隙内的工作载频分配所述业务数据包括向主载频板上与可 关断载频的时隙对应的工作载频和非主载频板的工作载频分配业务数据。
16、 根据权利要求 15所述的装置, 其特征在于, 所述向可关断载频的 时隙对应的主载频板的工作载频和非主载频板的工作载频分配业务数据包 括在所述与可关断载频的时隙对应的主载频板的工作载频分配完后, 再向 所述与可关断载频的时隙对应非主载频板的工作载频分配业务数据。
17、 根据权利要求 14至 16任一项所述的装置, 其特征在于, 所述主 载频用于发送控制信令的时隙为所述主载频板不可关断的时隙, 所述主载 用于发送业务数据的时隙为所述主载频板可关断的时隙。
18、 根据权利要求 13至 16任一项所述的装置, 其特征在于, 还包括 节能控制单元, 用于在所述业务数据分配完后, 在所有载频均没有业务数 据分配的可关断载频的时隙内关断所述载频所在的工作载频板。
19、 一种多载频功放资源的节能控制装置, 其特征在于, 包括: 数据分配单元, 用于向主载频板分配业务数据, 其中如果所述主载频 板的工作载频分配完后, 则向非主载频板的工作载频分配业务数据, 所述 向所述非主载频板的工作载频分配业务数据包括完成向所述非主载频板一 时隙内所有载频分配业务数据后再向另一时隙内的工作载频分配业务数 据;
节能控制单元, 用于在所述业务数据分配完之后, 在空闲时隙内关断 所述非主载频板, 所述空闲时隙是指在所述时隙内, 载频板的所有载频均 没有业务数据分配。
20、 根据权利要求 19所述的装置, 其特征在于, 所述数据分配单元向 主载频板分配业务数据包括:
向与所述主载频板用于发送控制信令的时隙对应的非主载频分配业务 数据;
如果分配完所述主载频板用于发送控制信令的时隙对应的非主载频 后, 则向与所述主载频板用于发送业务数据的其它时隙对应的工作载频分 配业务数据, 所述向与所述主载频板其它时隙对应的工作载频分配业务数 据包括完成向所述主载频板一所述其它时隙内所有载频分配业务数据后再 向另一所述其它时隙内的工作载频分配业务。
21、 根据权利要求 20所述的装置, 其特征在于, 所述主载频板用于发 送控制信令的时隙为不可关断所述主载频板的时隙, 所述主载频板用于发 送业务数据的其它时隙为可关断所述主载频板的时隙。
22、 根据权利要求 19至 21任一项所述的装置, 其特征在于, 如果所 述主载频板的处理能力大于所述业务数据, 则将所述业务数据全部分配给 所述主载频板并关断所述非主载频板。
23、 根据权利要求 22所述的装置, 其特征在于, 所述数据分配单元分 配完业务数据之后还包括如果所述可关断主载频板的时隙中存在没有分配 业务数据的空闲时隙, 则在所述空闲时隙内关断所述主载频板。
24、 根据权利要求 22所述的装置, 其特征在于, 如果所述数据分配单 元向所述主载频板与不可关断主载频板的时隙对应的非主载频分配完所有 业务数据, 则在可关断主载频板的其它时隙内关断所述主载频板。
25、 一种基站, 包括若干扇区, 每一扇区包括多载频功放, 所述多载 频功放用于承载多个载波频段并向终端发送数据信号, 其特征在于, 每一 扇区包括多载频功放资源的控制装置, 所述多载频功放资源控制装置用于 向不可关断载频的时隙内的工作载频分配业务数据, 并在所述向不可关断 载频的时隙内的工作载频分配业务数据完成后, 向可关断载频的时隙内的 工作载频分配所述业务数据, 所述向可关断载频的时隙内的工作载频分配 所述业务数据包括向一所述时隙内的所有工作载频分配业务数据后再向另 一所述时隙内的工作载频分配业务数据。
26、 根据权利要求 25所述的基站, 其特征在于, 所述不同扇区的多载 频功放资源的控制装置根据不同的时隙顺序向与可关断载频的时隙对应的 工作载频分配所述业务数据。
27、 根据权利要求 25或 26所述的基站, 其特征在于, 每一扇区还包 括节能控制单元, 用于在所述业务数据分配完后, 在所有载频均没有业务 数据分配的可关断载频的时隙内关断所述载频所在的工作载频板。
28、 一种基站, 包括若干扇区, 每一扇区包括多载频功放, 所述多载 频功放用于承载多个载波频段并向终端发送数据信号, 其特征在于, 每一 扇区包括多载频功放资源的节能控制装置, 所述多载频功放资源节能控制 装置用于向主载频板分配业务数据, 其中如果所述主载频板的工作载频分 配完后, 则向非主载频板的工作载频分配业务数据, 所述向非主载频板的 工作载频分配业务数据包括完成向所述非主载频板一时隙内所有载频分配 业务数据后再向另一时隙内的工作载频分配业务数据; 并在所述业务数据 分配完之后, 在空闲时隙内关断所述非主载频板, 所述空闲时隙是指在所 述时隙内, 载频板的所有载频均没有业务数据分配。
PCT/CN2011/077104 2011-07-13 2011-07-13 多载频功放资源的控制方法以及装置 Ceased WO2012159327A1 (zh)

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