WO2010094241A1 - Method for transmitting control information and unicast service control channels region information - Google Patents

Method for transmitting control information and unicast service control channels region information Download PDF

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Publication number
WO2010094241A1
WO2010094241A1 PCT/CN2010/070688 CN2010070688W WO2010094241A1 WO 2010094241 A1 WO2010094241 A1 WO 2010094241A1 CN 2010070688 W CN2010070688 W CN 2010070688W WO 2010094241 A1 WO2010094241 A1 WO 2010094241A1
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WIPO (PCT)
Prior art keywords
control information
user
frequency
frequency reuse
specific control
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PCT/CN2010/070688
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French (fr)
Chinese (zh)
Inventor
鲁照华
刘锟
夏薇
方惠英
关艳峰
刘颖
Original Assignee
中兴通讯股份有限公司
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Publication of WO2010094241A1 publication Critical patent/WO2010094241A1/en

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Classifications

    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W48/00Access restriction; Network selection; Access point selection
    • H04W48/08Access restriction or access information delivery, e.g. discovery data delivery

Definitions

  • a base station refers to a device that provides a service to a terminal, and the base station communicates with the terminal through an uplink and downlink link, wherein a downlink (DownLink, hereinafter referred to as a forward link) refers to In the direction from the base station to the terminal, the uplink (UpLink, also referred to as UL, also referred to as the reverse link) refers to the direction of the terminal to the base station.
  • DownLink DownLink
  • UL also referred to as the reverse link
  • Multiple terminals can simultaneously transmit data to the base station through the uplink, or can simultaneously receive data from the base station through the downlink.
  • a system resource is usually allocated by a base station, for example, a resource allocated by the base station for downlink transmission and a resource usable by the terminal for uplink transmission.
  • Orthogonal Frequency Division Multiplex Orthogonal Frequency Division Multiplex (Orthogonal Frequency Division Multiplex)
  • Non-user-specific control information refers to information that is not for a specific user or a specific group of users.
  • the non-user-specific control information includes information required to decode user specific control information, where the user-specific control information is information indicating a specific user or a specific user group, and usually includes Assignment Advanced-MAP, Power Control Advanced-MAP, Hybrid Automatic Repeat Request (HARQ) feedback information ( HARQ Feedback Advanced-MAP), etc.
  • HARQ Hybrid Automatic Repeat Request
  • Fractional Frequency Reuse In practical applications of TDD or FDD wireless communication systems using OFDMA technology, Fractional Frequency Reuse (FFR) technology is usually used.
  • Figure 1 indicates an implementation of a partial frequency reuse technique.
  • the frequency resource allocation mode of adjacent three cells and the transmission power limitation (power level) of each frequency set are rescued.
  • power level the transmission power limitation
  • all available downlink frequency resources are divided into 7 frequency sets.
  • the frequency reuse factor of the frequency reuse region composed of f 2 and f 3 is 1/3 (in In some documents, the frequency reuse factor in this case is defined as 3), that is, the frequency resources in f 2 , f 3 are allocated to one of three neighboring cells, and the other two cells cannot use the frequency resource. , or the other two cells need to use the frequency resource to limit the transmission power of the frequency resource, that is, the Reuse Factor of the frequency reuse region composed of f 2 and f 3
  • the frequency resource in ⁇ 2 , ⁇ 23 , ⁇ 3 is allocated to two cells in three neighboring cells, and the third cell cannot use the frequency resource or needs to use the method of limiting its transmission power to use the frequency resource.
  • the frequency reuse factor of the frequency reuse region is 1, that is, three adjacent cells can use the frequency resource without restriction.
  • Reuse Factor 1 of the frequency reuse area composed of 23 .
  • the present invention provides a control information and unicast service control channel area information.
  • the transmission method is used to solve the problem that the control information cannot be transmitted reasonably and efficiently in the prior art.
  • a method of transmitting control information is provided.
  • the all or part of the frequency resources of the time zone in which the control information is transmitted includes: a plurality of frequency reuse zones, the frequency reuse factors in the plurality of frequency reuse zones are different, and each frequency reuse zone includes one or more frequency sets.
  • the transmission method of control information according to the present invention includes the base station transmitting control information on a frequency reuse area having the smallest frequency reuse factor in the time zone. Specifically, the base station may transmit the foregoing control information on part or all of the distributed logical resources of the frequency reuse area with the smallest frequency reuse factor.
  • the base station transmits the above control information on a part or all of the frequency set of the frequency reuse region having the smallest frequency reuse factor.
  • the base station transmits the above control information on a frequency set having the highest power level in the frequency reuse region where the frequency reuse factor is the smallest.
  • the base station may transmit the foregoing control information on part or all of the distributed logical resources of the highest frequency set of the power level.
  • the above control information includes: non-user-specific control information or user-specific control information.
  • the non-user-specific control information includes but is not limited to: information indicating a resource used to transmit user-specific control information.
  • the non-user-specific control information may further include: an identifier for indicating whether to transmit non-user-specific control information and/or user-specific control information on other frequency reuse areas except the frequency reuse area having the smallest frequency reuse factor.
  • the user-specific control information includes, but is not limited to, at least one of the following: resource allocation information, power control information, and hybrid automatic repeat request feedback information.
  • the base station may transmit the foregoing control information by any one of broadcast, multicast, or unicast.
  • a method for transmitting unicast service control channel region information is provided, wherein all or part of a time region of a unicast service control channel region information is transmitted.
  • the rate resource includes a plurality of frequency reuse regions, and each frequency reuse region includes one or more frequency sets.
  • the method for transmitting unicast service control channel region information according to the present invention includes: the base station transmitting the unicast service control channel region information under a frequency set satisfying a preset condition in the time zone.
  • the foregoing preset conditions include: the downlink interference level is the smallest or the downlink coverage is the largest.
  • the foregoing unicast service control channel region information includes but is not limited to: non-user-specific control information and/or user-specific control information.
  • the base station notifies the terminal to transmit the resources used by the unicast service control channel region information through the broadcast channel.
  • the base station may transmit the unicast service control channel region information on part or all of the distributed logical resources of the frequency set that meets the foregoing preset condition. Moreover, the base station may transmit the foregoing unicast service control channel region information by any one of broadcast, multicast, or unicast.
  • a method of transmitting control information is provided.
  • the all or part of the frequency resources of the time zone in which the control information is transmitted includes: a plurality of frequency reuse zones, the frequency reuse factors in the plurality of frequency reuse zones are different, and each frequency reuse zone includes one or more frequency sets.
  • a method of transmitting control information according to the present invention includes the base station indicating a frequency reuse region or a frequency set in which transmission control information is transmitted in a superframe header. Specifically, when the superframe header indicates that the control information is transmitted on the frequency reuse region where the frequency reuse factor is the smallest, the base station transmits the above control information on part or all of the distributed logical resources of the frequency reuse region. Alternatively, the base station transmits the above control information on a part or all of the frequency set of the frequency reuse region having the smallest frequency reuse factor. Alternatively, the base station transmits the above control information on a frequency set having the highest power level in the frequency reuse region where the frequency reuse factor is the smallest.
  • the base station may transmit the foregoing control information on part or all of the distributed logical resources of the highest frequency set of the power level.
  • the above control information includes: non-user-specific control information and/or user-specific control information.
  • the non-user-specific control information includes but is not limited to: information indicating a resource used to transmit user-specific control information.
  • the non-user-specific control information may further include: indicating whether to transmit user-specific control information on other frequency reuse areas except the frequency reuse area with the smallest frequency reuse factor.
  • the user-specific control information includes, but is not limited to, at least one of the following: resource allocation information, power control information, and hybrid automatic repeat request feedback information.
  • the time zone described above is composed of one or more subframes.
  • a method of transmitting control information is provided.
  • the all or part of the frequency resources of the time zone in which the control information is transmitted includes: a frequency reuse zone, and the frequency reuse zone includes a plurality of frequency sets.
  • the transmission method of control information according to the present invention includes the base station transmitting control information on a frequency set having the highest power level constituting the frequency reuse area.
  • the base station may transmit the foregoing control information on part or all of the distributed logical resources of the highest frequency set of the power level.
  • the foregoing control information includes: non-user-specific control information or/or user-specific control information.
  • the non-user-specific control information includes but is not limited to: information indicating a resource used to transmit user-specific control information.
  • the non-user-specific control information may further include: indicating whether to transmit user-specific control information on other frequency reuse areas except the frequency reuse area with the smallest frequency reuse factor.
  • User-specific control information includes but is not limited to at least one of the following: resource allocation information, power control Information, hybrid automatic retransmission request feedback information.
  • the time zone described above is composed of one or more subframes.
  • a method of transmitting control information is provided. The all or part of the frequency resources of the time zone in which the control information is transmitted includes: one or more frequency reuse zones, the frequency reuse factors in the different frequency reuse zones are different, and each frequency reuse zone includes one or more frequency sets.
  • the method for transmitting control information according to the present invention includes the base station using the same or different encoding parameters when transmitting the control information on different sets of frequencies.
  • the base station indicates, by using a superframe header, a frequency set or a frequency reuse area for transmitting control information.
  • the coding parameters used when transmitting the control information on different frequency sets are standard default configurations.
  • the base station indicates, by using a superframe header, an encoding parameter that sends the control information.
  • the coding parameters include, but are not limited to, at least one of the following: a modulation coding mode, a repetition number, an encoding code rate, a multi-antenna coding/pre-coding parameter, and a number of occupied resources.
  • control information includes: non-user-specific control information and/or user-specific control information.
  • the non-user-specific control information includes but is not limited to: information indicating a resource used to transmit user-specific control information.
  • the non-user-specific control information may further include: indicating whether to transmit user-specific control information on other frequency reuse areas except the frequency reuse area with the smallest frequency reuse factor.
  • the user-specific control information includes, but is not limited to, at least one of the following: resource allocation information, power control information, and hybrid automatic repeat request feedback information.
  • the time zone described above is composed of one or more subframes.
  • a non-user-specific control information and user-specific control information are transmitted over a frequency reuse region having a minimum frequency reuse factor in a time region, thereby providing a
  • the method for transmitting control information reasonably and efficiently solves the problem that the control information cannot be transmitted reasonably and efficiently in the prior art, so that the control information of the wireless communication system can be transmitted reasonably and efficiently, and the performance of the entire wireless communication system is improved.
  • FIG. 1 is a schematic diagram of an implementation of a partial frequency reuse technology in the prior art
  • FIG. 2 is a schematic diagram of a frame structure of an IEEE 802.16m
  • FIG. 3 is a schematic diagram of a frequency resource allocation manner
  • Figure 5 is a schematic diagram of a frame structure
  • Figure 6 is a flow chart of the second embodiment
  • Figure 7 is a flow chart of the third embodiment
  • Figure 8 is a third embodiment of the fourth embodiment
  • Figure 10 is a flow chart of the sixth embodiment
  • Figure 11 is a flow chart of the seventh embodiment
  • Figure 12 is a flow chart of another frequency resource allocation
  • Figure 13 is a flow chart of the eighth embodiment
  • Figure 15 is a flow chart of the tenth embodiment
  • Figure 16 is a flow chart of the eleventh embodiment
  • Figure 17 is a flow chart of the twelfth embodiment.
  • the embodiments of the present invention provide a method for transmitting control information and a unicast service control channel for how to transmit control information such as non-user-specific control information and/or user-specific control information.
  • the method of transmitting regional information is not limited to, but not limited to, but not limited to, but not limited to, but not limited to, but not limited to, but not limited to, but not limited to, but not limited to, but not limited to, but not limited to transmit control information.
  • the base station when transmitting the control information, transmits the control information on at least the frequency reuse area with the smallest frequency reuse factor in the current time zone, or indicates the frequency reuse area of the control information by using the field in the superframe header or a set of frequencies, where the superframe header carries system configuration information, usually consisting of a primary superframe header and a secondary superframe header (also referred to as a primary broadcast channel or a secondary broadcast channel), immediately following the primary synchronization channel or the secondary synchronization channel
  • the base station transmits the unicast service control channel area information at least in the frequency set of the current time zone with the smallest downlink interference level or the smallest line coverage.
  • the foregoing control information includes: User specific control information (Non-user-specific control information) or Non-user-specific Advanced (MAP).
  • the above unicast service control channel area information includes, but is not limited to, user-specific control information and non-user-specific control information.
  • the above time zone i may be composed of one or more subframes.
  • a method for transmitting control information is first provided, where part or all of the frequency resources of the time zone of the transmission control information includes: a plurality of frequency reuse zones, wherein each frequency of the plurality of frequency reuse zones The frequency reuse factor of the reused area is different, and each frequency The reused area includes one or more sets of frequencies.
  • the method for transmitting control information according to an embodiment of the present invention includes: the base station transmitting control information on a frequency reuse area having a smallest frequency reuse factor in the time zone.
  • the control information includes: non-user-specific control information and user-specific control information, where the non-user-specific control information includes: information indicating a resource used to transmit the user-specific control information; the user-specific control information includes It is not limited to: resource allocation information, power control information, HARQ feedback information, and the like.
  • the base station may transmit the foregoing control information on a frequency reuse area with the smallest frequency reuse factor by using any one of broadcast, multicast, and unicast.
  • the base station may transmit the control information on part or all of the distributed logical resources of the frequency reuse region; if the frequency reuse factor has the smallest frequency reuse region Including a plurality of frequency sets, the base station may transmit the control information on some or all of the plurality of frequency sets, or the base station may also have the highest power level (ie, the transmit power limitation) in the multiple frequency sets.
  • the control information is transmitted on the set of frequencies, and further, the base station may transmit the control information on part or all of the distributed logical resources of the highest frequency set of the power level.
  • the base station may transmit the foregoing control information on one or more frequency reuse sets of the frequency reuse region with the smallest frequency reuse factor, if the base station transmits control information on the frequency set with the highest power level among the multiple frequency sets, and at the same time, The control information is transmitted on the other frequency set. If the control information is non-user-specific control information, the non-user-specific control information further includes: indicating whether the non-user is transmitted on the other frequency set except the frequency set with the highest power level. Identification of proprietary control information and/or user-specific control information. In the specific implementation process, the above identifier may be represented by a field, and the length of the field may be determined according to actual needs.
  • the base station may transmit the control information on other frequency reuse areas in addition to the above-mentioned control information on the frequency reuse area where the frequency reuse factor is the smallest. Therefore, when transmitting non-user-specific control information, the non-user specializes The control information further includes: indicating whether non-user-specific control information and/or user-specific control information is transmitted on other frequency reuse areas than the frequency reuse area having the smallest frequency reuse factor. Moreover, when transmitting non-user-specific control information, the base station can pass through the terminal through the broadcast channel. The resources used to transmit non-user-specific control information, that is, on which time-frequency resources are transmitted non-user-specific control information.
  • the time zone may include one or more subframes.
  • the foregoing method for transmitting control information provided by the embodiment of the present invention can transmit the control information of the wireless communication system reasonably and efficiently, and improve the performance of the entire wireless communication system.
  • the method for transmitting the foregoing control information provided by the embodiments of the present invention is described in detail below through specific embodiments.
  • an IEEE 802.16m system is taken as an example to describe the technical solution provided by the embodiment of the present invention.
  • FIG. 2 is a schematic diagram of a frame structure of IEEE 802.16m. As shown in FIG.
  • the entire radio resource is divided into super Different structure granularities such as frames, frames, subframes, and OFDM symbols.
  • the radio resource may be first divided into time-continuous super frames, each superframe has a duration of 20 milliseconds, and each superframe consists of four frames of 5 milliseconds and a length of time (Frame). Composition, each frame contains 8 subframes (SF), and each subframe is composed of 6 OFDM symbols.
  • the frequency resource allocation manner of the adjacent three cells is as shown in FIG. 3, and all available downlink frequency resources are divided into four frequency sets : [ ⁇ ' ⁇ ' ⁇ ' ⁇ 23 ] , where ,
  • the frequency reuse factor of the frequency reuse region formed by ⁇ ' ⁇ ' ⁇ is 1/3, that is, the frequency resource in ⁇ ' ⁇ ' ⁇ is allocated to one of three adjacent cells, and the other two cells cannot use the frequency.
  • the resource may need to use the method to limit its transmit power to use the frequency resource; ⁇ 23
  • the frequency aggregation ⁇ has the smallest downlink interference level and the largest coverage.
  • the frequency set ⁇ has the smallest interference level and the largest coverage.
  • Embodiment 1 This embodiment takes the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example.
  • the base station (BS-A) of the cell A in FIG. 3 transmits non-user-specific control information.
  • 4 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG.
  • the BS-A transmission non-user-specific control information mainly includes the following steps: Step 401: The power in the frequency reuse region where the BS-A frequency reuse factor is 1/3 in the subframe Non-user-specific control information is transmitted by broadcast on the highest-level frequency set. Step 402: The terminal decodes the non-user-specific control information by using known information, and determines a subsequent workflow by analyzing the information. In a specific implementation process, the BS-A may transmit non-user-specific control information on part or all of the distributed logical resource blocks.
  • the distributed logical resource block may be configured according to a standard default. It is also possible for the BS-A to notify the terminal in which the distributed logical resource blocks are transmitted in the secondary broadcast channel; and, the BS-A can also set other distributed logical resource block sets other than the standard default configuration distributed logical resource block. Transmitting non-user-specific control information; in addition,
  • BS-A may also transmit non-user-specific control information on a frequency set other than ⁇ in a frequency reuse region with a frequency reuse factor of 1/3; and, BS-A may also be reused at a frequency reuse factor of one.
  • Non-user-specific control information is transmitted on the area.
  • the BS-A transmits, by using the secondary broadcast channel, a distributed logical resource block required to transmit non-user-specific control information on the frequency set having the highest power level in the frequency reuse region having the frequency reuse factor of 1/3 (Distributed).
  • the number information of the Resource Unit and then step 401, that is, the corresponding distributed logical resource block of the BS-A on the frequency set ⁇
  • the non-user-specific control information is transmitted to the terminal through broadcast (also in multicast mode or unicast mode).
  • the information (which may be referred to as non-user-specific control information A) includes a field describing whether or not to transmit non-user-specific control information (referred to as non-user-specific control information B) in a frequency reuse region having a frequency reuse factor of 1, when the field
  • non-user-specific control information B may also include the transmission non-transmission in the frequency set 23 constituting the frequency reuse region whose frequency reuse factor is 1.
  • the number of distributed logical resource blocks required by the user-specific control information B includes a field describing whether or not to transmit non-user-specific control information (referred to as non-user-specific control information B) in a frequency reuse region having a frequency reuse factor of 1, when the field
  • the non-user-specific control information A may also include the transmission non-transmission in the frequency set 23 constituting the frequency reuse region whose frequency reuse factor is 1.
  • the number of distributed logical resource blocks required by the user-specific control information B includes a field describing whether or not to transmit non-user-specific control information (referred to as non-user-
  • the terminal obtains the number information of the distributed logical resource blocks (ie, DRU Count) required to transmit the non-user-specific control information on the frequency set of the subframe by decoding the secondary broadcast channel, thereby decoding the frequency set from the specific index number.
  • the set of distributed logical resource blocks whose number is equal to DRU Count obtains non-user-specific control information A, wherein the specific index number can be configured by the standard default.
  • the terminal knows from the non-user-specific control information A whether or not the non-user-specific control information B is transmitted on the frequency set 23 .
  • the terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information.
  • the first subframe (SF0) of each frame needs to transmit non-user-specific control information in the frame structure shown in FIG. 5,
  • the BS-A transmits the non-user-specific control information to the terminal by using a standard default configuration of the distributed logical resource block set on the frequency set ⁇ , wherein the non-user proprietary control information (referred to as non-user specific
  • the control information A) includes a field describing whether to transmit non-user-specific control information in the frequency reuse region with a frequency reuse factor of 1, and when the field indicates that the frequency reuse factor has a frequency reuse factor of 1, it is necessary to transmit non-user-specific control information.
  • the non-user-specific control information A may also include a frequency set 23 constituting a frequency reuse region having a frequency reuse factor of 1 required to transmit non-user-specific control information B.
  • the terminal transmits the non-user-specific control by the standard default configuration through the successful decoding of the frequency set ⁇ Resources for information, obtaining non-user-specific control information.
  • the terminal learns from the non-user-specific control information whether or not the non-user-specific control information is transmitted on the frequency set 23 . If so, the terminal obtains the content required to decode the user-specific control information by successfully decoding the non-user-specific control information.
  • the base station also transmits non-user-specific control information on the distributed logical resource blocks other than the standard default configuration of the frequency set W x.
  • the first subframe (SF0) of each frame is required.
  • BS-A (cell A in Figure 3) transmits non-user-specific control information by broadcast on the standard set of distributed logical resource blocks configured by default (referred to as non-user-specific There is control information A) to the terminal, the non-user-specific control information including a field indicating whether non-user-specific control information (referred to as non-user-specific control information B) is also transmitted on other distributed logical resource blocks of the frequency set.
  • the field can have two forms: One is an indication bit, which is used to indicate whether non-user-specific control information B is also transmitted on other distributed logical resource blocks of the frequency set, and if not, the non-user is transmitted.
  • the resources required for the proprietary control information B are available through standard default configurations; another form is the distributed logic resource on the set of frequencies required to transmit non-user-specific control information B. The number of information blocks.
  • the terminal obtains the non-user-specific control information A by successfully decoding the frequency set to transmit the non-user-specific control information A by the standard default configuration.
  • the terminal learns from the non-user-specific control information whether the non-user-specific control information B is transmitted on other distributed logical resource blocks of the frequency set, so that the terminal obtains the non-user-specific control information B according to the relevant indication.
  • the terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information. Transmitting non-user-specific control information on a frequency set other than the frequency reuse region with a frequency reuse factor of 1/3.
  • the first subframe (SF0) of each frame needs to be transmitted.
  • Non-user-specific control information BS-A (Cell A in Figure 3) on the distributed logic of the standard default configuration
  • the non-user-specific control information (referred to as non-user-specific control information A) is broadcasted on the resource block set to include a field describing whether to transmit user-specific control information on other frequency sets.
  • the field includes 3 bits, which respectively indicate whether the user-specific control information is transmitted on the frequency set 2 , 3 , and W U.
  • the frequency set ⁇ User-specific control information is transmitted on the 23rd .
  • the terminal obtains non-user-specific control information by successfully decoding the frequency set to be used by the standard default configuration for transmitting non-user-specific control information.
  • Embodiment 2 This embodiment uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example to describe the transmission of user-specific control information by the base station (BS-A) of the cell A in FIG. 3.
  • FIG. 6 is a flowchart of the embodiment, which is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG.
  • the BS-A transmits user-specific control information mainly includes the following steps: Step 601: The power level in the frequency reuse region where the BS-A frequency reuse factor is 1/3 in the subframe The highest frequency set ⁇ sends user-specific control information. Step 602: The terminal decodes the user-specific control information by using known information, and determines a subsequent workflow by analyzing the information.
  • the user-specific control information includes one or any combination of the following: resource allocation information, power control information, and HARQ feedback information, where the resource allocation information mainly includes downlink resource allocation information.
  • the terminal can be a single terminal or a terminal group.
  • Resource allocation information In the frame structure shown in Figure 5, the first subframe (SF0) of each frame needs to transmit user-specific information.
  • Control information, BS-A (cell A in Fig. 3) transmits resource allocation information to the terminal in a unicast manner on distributed logical resources in a frequency set having the highest power level in a frequency reuse region having a frequency reuse factor of 1/3 MS-A.
  • the terminal MS-A learns the resource location of the downlink data or the resource that can be used when transmitting the uplink data by successfully decoding the user-specific control information related to itself transmitted on the frequency set.
  • the first subframe (SF0) of each frame needs to transmit user-specific control information
  • BS-A cell A in Figure 3 constitutes a frequency reuse factor of 1/
  • the distributed logical resource in the frequency set with the highest power level in the frequency reuse region of 3 transmits the HARQ feedback information to the terminal MS-A by means of code division.
  • the terminal MS-A learns whether it needs to retransmit the previously sent uplink data by successfully decoding the HARQ feedback information related to itself sent on the frequency set.
  • the first subframe (SF0) of each frame needs to transmit user-specific control information
  • BS-A (cell A in Figure 3) constitutes a frequency reuse factor of 1/
  • the distributed logic resources in the frequency set with the highest power level in the frequency reuse region of 3 transmit the power control information to the terminal MS-A by means of code division.
  • the terminal MS-A adjusts its uplink transmit power by successfully decoding the power control information related to itself transmitted on the frequency set.
  • Downlink resource allocation information In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame needs to transmit user-specific control information, and BS-A (cell A in FIG. 3) constitutes a frequency reuse factor of 1.
  • the downlink resource allocation information is transmitted to the terminal group MS Group-A through the multicast mode on the distributed logical resources in the frequency set with the highest power level in the frequency reuse area of the /3.
  • the terminal included in the terminal group MS Group-A learns the downlink data transmission location related to itself by successfully decoding the user-specific control information related to itself transmitted on the frequency set.
  • a method for transmitting unicast service control channel region information is also provided.
  • the part or all of the frequency resources of the time zone for transmitting the unicast service control channel region information includes multiple frequency reuse regions, and each frequency reuse region includes one or more frequency sets.
  • the method for transmitting the unicast service control channel information (the unicast service control channel region) includes: the base station transmitting the unicast service control channel region information under the frequency set that meets the preset condition in the time zone, where The above preset conditions include: The downlink interference level is the smallest or the downlink coverage is the largest. That is, in the embodiment of the present invention, the base station transmits the unicast service control channel region information at least in the frequency set with the smallest downlink interference level or the largest downlink coverage in the time zone.
  • the foregoing unicast service control channel area information includes but is not limited to: non-user-specific control information and/or user-specific control information.
  • the base station may transmit the unicast service control channel region information on part or all of the distributed logical resources of the frequency set that meets the foregoing preset condition. Moreover, the base station may transmit the unicast service control channel region information by using any one of broadcast, multicast, or unicast. In a specific implementation process, in order for the terminal to parse the unicast service control channel region information transmitted by the base station, the base station may notify the terminal through the broadcast channel of the resources used by the unicast service control channel region information. Specifically, in the foregoing method for transmitting unicast service control channel region information in the embodiment of the present invention, the time region may include one or more subframes.
  • the unicast service control channel area information transmission method of the foregoing embodiment of the present invention can reasonably and efficiently transmit the unicast service control channel area information, thereby improving system performance.
  • the method for transmitting the unicast service control channel area information provided by the embodiment of the present invention is described in detail below through a specific embodiment.
  • Embodiment 3 In this embodiment, the frame structure shown in FIG. 2 and the frequency resource allocation mode shown in FIG. 3 are taken as an example, and the unicast service control channel region information of the base station (BS-A) of the cell A in FIG. 3 is described.
  • the unicast service control channel area information is non-user-specific control information, and FIG.
  • Step 701 The base station downlinks in the subframe
  • the non-user-specific control information is broadcasted on the set of frequencies with the smallest interference level or the largest coverage.
  • Step 702 The terminal decodes the non-user-specific control information by using the known information, and determines the subsequent workflow by analyzing the information. Specifically, as shown in FIG. 3, for the cell A, the frequency set with the smallest downlink interference level or the largest coverage area in the subframe is ⁇ , and the BS-A may be on the distributed logical resource block of the standard default configuration of the frequency set. The foregoing non-user-specific control information may be transmitted, and the non-user-specific control information may also be transmitted on any part or all of the distributed logical resource blocks of the frequency set. In this case, the BS-A notifies the terminal to pass the secondary broadcast channel.
  • a distributed logical resource block for notifying a terminal to transmit non-user-specific control information through a secondary broadcast channel In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame needs to transmit non-user-specific control information, BS. -A sends the lowest frequency interference level or the lowest downlink coverage ( Lowest Interference-level Frequency Partition, or Largest) through the secondary broadcast channel.
  • non-user-specific control information A includes whether non-user-specific control information (referred to as non-user-specific control information B) is sent in a frequency reuse area that describes a frequency reuse factor of 1.
  • the non-user-specific control information A may also include a frequency reuse region that describes the frequency reuse factor of 1.
  • the number of distributed logical resource blocks required to transmit non-user-specific control information B in the frequency set 23 is.
  • the terminal obtains the number information (DRU Count ) of the distributed logical resource blocks required for transmitting the non-user-specific control information on the frequency set of the subframe by decoding the secondary broadcast channel, thereby decoding the specific index number on the frequency set W x
  • the starting set of distributed logical resource blocks equal to the DRU Count obtains non-user-specific control information A, wherein the specific index number can be configured by the standard default.
  • the terminal knows from the non-user-specific control information A whether or not the non-user-specific control information 8 is transmitted on the frequency set ⁇ 23 .
  • the terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information.
  • the first subframe (SF0) of each frame needs to transmit non-user-specific control information in the frame structure shown in FIG. 5, BS-A (cell A in FIG. 3) broadcasts non-user-specific control information to the terminal by broadcast on a standard default configuration of distributed logical resource block sets on a frequency set with the lowest downlink interference level or the largest downlink coverage.
  • the non-user-specific control information (referred to as non-user-specific control information A) includes a field describing whether to transmit non-user-specific control information in a frequency reuse region having a frequency reuse factor of 1, when the field indicates that the frequency reuse factor is
  • the non-user-specific control information B When the non-user-specific control information (referred to as non-user-specific control information B) needs to be transmitted in the frequency reuse region of 1, the non-user-specific control information A may also include the frequency constituting the frequency reuse region that describes the frequency reuse factor of 1.
  • the terminal transmits the non-user-specific control by the standard default configuration through the successful decoding of the frequency set ⁇
  • the resource of the information obtains non-user-specific control information A.
  • the terminal knows from the non-user-specific control information whether or not non-user-specific control information B is transmitted on the frequency set 23 .
  • the terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information.
  • the base station also transmits non-user-specific control information on the distributed logical resource blocks other than the standard default configuration of the frequency set W x. In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame is required.
  • BS-A Transmitting non-user-specific control information, BS-A broadcasts non-user-specific control information by broadcast on the standard default configuration of distributed logical resource block sets on the lowest frequency interference level or the largest downlink coverage set ( Called as non-user-specific control information A) to the terminal, the non-user-specific control information contains
  • non-user-specific control information B A field of information (referred to as non-user-specific control information B) that can take two forms: One form is an indication bit that indicates whether non-users are also transmitted on other distributed logical resource blocks of the frequency set ⁇ Proprietary control information B, if transmission is required, the resources required to transmit non-user-specific control information B can be obtained through standard default configuration; another form is to include the frequency set required to transmit non-user-specific control information B Information on the number of distributed logical resource blocks. The terminal obtains non-user-specific control information A by successfully decoding the frequency set ⁇ on the resource of the non-user-specific control information A that is configured by default.
  • the terminal obtains the non-user-specific control information B from the non-user-specific control information B, and the terminal further obtains the non-user-specific control information B according to the relevant instruction.
  • the terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information.
  • the base station also transmits non-user-specific control information in other multiple frequency reuse areas.
  • the first subframe (SF0) of each frame needs to transmit non-user-specific control information, BS-A.
  • BS-A non-user-specific control information
  • the non-user-specific control information is broadcasted to the terminal by a standard default configuration of the distributed logical resource block set, and the non-user-specific control information (referred to as non-user-specific control information A) is included on the other frequency set.
  • non-user-specific control information A is included on the other frequency set.
  • the field contains 3 bits, respectively, indicating whether the user-specific control information is transmitted on the frequency set ⁇ , 3 , W U , for example, the field is " At 011", the user-specific control information is transmitted on the frequency set ⁇ , 23 .
  • the terminal obtains non-user-specific control information by successfully decoding the frequency set on the resource configured by the standard default configuration for transmitting non-user-specific control information.
  • the terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information.
  • Embodiment 4 This embodiment takes the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example, and performs the unicast service control channel region information for the base station (BS-A) of the cell A in FIG. Description.
  • the unicast service control channel area information is user-specific control information
  • FIG. 8 is a flowchart of the embodiment. It is assumed that the BS-A needs to transmit non-user-specific control information in a certain subframe of the superframe. And the frequency resource of the subframe is divided into four frequency sets as shown in FIG. 3 to form two frequency reuse regions (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse factor is 1/3 frequency reuse.
  • the area includes three frequency sets, and the frequency reuse area with a frequency reuse factor of 1 includes a frequency set. As shown in FIG.
  • the user-specific control information includes one or any combination of the following: resource allocation information, power control information, and HARQ feedback information, where the resource allocation information mainly includes downlink resource allocation information.
  • the terminal can be a single terminal or a terminal group. The following describes the power control information and resource allocation information as an example. Resource allocation information In the frame structure shown in FIG.
  • the first subframe (SF0) of each frame needs to transmit user-specific control information
  • BS-A cell A in FIG. 3
  • the resource allocation information is transmitted to the terminal MS-A in a unicast manner on the distributed logical resources in the largest frequency set.
  • the terminal MS-A learns the resource location of the downlink data or the resource that can be used when transmitting the uplink data by successfully decoding the user-specific control information related to itself transmitted on the frequency set.
  • the HARQ feedback information In the frame structure shown in Figure 5, the first subframe (SF0) of each frame needs to transmit user-specific control information, and BS-A (cell A in Figure 3) has the lowest downlink interference level or coverage.
  • the HARQ feedback information is transmitted to the terminal MS-A by means of code division on the distributed logical resources in the largest frequency set. The terminal MS-A learns whether it needs to retransmit the previously sent uplink data by successfully decoding the HARQ feedback information related to itself sent on the frequency set.
  • Power control information In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame needs to transmit user-specific control information, and BS-A (cell A in FIG. 3) has the minimum downlink interference level or coverage.
  • the distributed logic resources in the largest frequency set of the range transmit the power control information to the terminal MS-A by means of code division.
  • the terminal MS-A adjusts its uplink transmit power by successfully decoding the power control information related to itself transmitted on the frequency set.
  • Downlink resource allocation information In the frame structure shown in FIG. 5, the first subframe (SF 0 ) of each frame needs to transmit user-specific control information, and the base station BS-A (cell A in FIG. 3) is at the downlink interference level.
  • the downlink resource allocation signal is transmitted through the multicast mode on the distributed logical resource in the smallest or largest frequency set ⁇
  • the terminal included in the terminal group MS Group-A Episode terminal group MS Group-A learns the user-specific control information related to itself transmitted by successfully decoding the frequency set, and knows the transmission position of the downlink data related thereto. 5
  • This embodiment uses the frame structure shown in FIG. 2 and the frequency resource allocation mode shown in FIG. 3 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. 3.
  • BS-A base station
  • the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG.
  • Two frequency reuse regions (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse region with a frequency reuse factor of 1/3 includes three frequency sets, and the frequency reuse region with a frequency reuse factor of 1 includes a frequency set As shown in FIG.
  • the BS-A transmits user-specific control information, which mainly includes the following steps: Step 901: The base station sends indication information in a superframe header (a primary superframe header or a secondary superframe header) for indicating Non-user special Whether the control information is transmitted on the frequency reuse area with the frequency reuse factor of 1 or the frequency reuse area with the frequency reuse factor of 1/3. Step 902, the terminal uses the super frame header to obtain the base station transmits the non-user-specific control information. Specifically, when the indication information in the superframe header (as shown in Table 1) indicates that the base station transmits non-user-specific control information on the frequency reuse area where the frequency reuse area is 1/3, it can be understood as a base station.
  • a superframe header a primary superframe header or a secondary superframe header
  • the BS-A transmits non-user-specific control information on the frequency set W1 with the highest power level on the frequency reuse area. Further, the base station BS-A transmits non-user-specific using all or part of the distributed logical unit on the frequency set W1. Control information. Further, the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets. Further, the user-specific control information includes but is not limited to at least one of the following: Resource Assignment Information (Appointment A-MAP) , power control information, hybrid automatic repeat request feedback information, group allocation information, permanent resource allocation information .
  • Resource Assignment Information Appointment A-MAP
  • non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information.
  • Table 1 Superframe header format
  • Embodiment 6 uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. . 10 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG. Forming two frequency reuse regions (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse region with a frequency reuse factor of 1/3 includes three frequency sets, and the frequency reuse region with a frequency reuse factor of 1 includes one frequency As shown in FIG.
  • the BS-A transmits user-specific control information mainly includes the following steps: Step 1001: The base station sends indication information in a super frame header (a primary superframe header or a secondary superframe header), where A set of frequencies indicating the transmission of non-user-specific control information. Step 1002: The terminal uses a superframe header to obtain a frequency set used by the base station to send non-user-specific control information. Specifically, the base station BS-A transmits non-user-specific control information using all or part of the distributed logical unit on the corresponding frequency set. Further, non-user-specific control information indicates whether user-specific is sent on other frequency sets Control information.
  • the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information.
  • the superframe header format is as shown in Table 2. It should be noted that, in the foregoing embodiment, non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information.
  • Embodiment 7 This embodiment uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. .
  • FIG. 11 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG.
  • Step 1101 The base station sends indication information in the superframe header (the primary superframe header or the secondary superframe header) to indicate that the non-user-specific control information is reused at a frequency constituting the frequency reuse factor of 1.
  • the transmission on the frequency set of the region is also transmitted on the frequency set having the highest power level of the frequency reuse region constituting the frequency reuse factor of 1/3.
  • Step 1102 The terminal uses a superframe header to obtain a frequency set used by the base station to send non-user-specific control information.
  • the base station BS-A transmits non-user-specific control information using all or part of the distributed logical unit on the corresponding frequency set.
  • the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets.
  • the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information.
  • the superframe header format is as shown in Table 3.
  • non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information.
  • Table 3 Superframe header format
  • Embodiment 8 uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 12 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. . 13 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into three frequency sets according to FIG. 12, Forming a frequency reuse area (the frequency reuse factor is 1/3), as shown in FIG. 13, the BS-A transmits the user-specific control information mainly includes the following steps: Step 1301, the base station is configured to have a frequency reuse factor of 1/3.
  • the non-user-specific control information is transmitted on the frequency set with the highest power level of the frequency reuse area.
  • Step 1302 The terminal decodes non-user-specific control information. Specifically, the base station BS-A transmits non-user-specific control information using all or part of the distributed logical unit on the corresponding frequency set. Further, the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets. Further, the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information.
  • resource allocation information Assignment A-MAP
  • non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information.
  • Embodiment 9 This embodiment uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. . 14 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG.
  • the BS-A transmits the user-specific control information mainly including the following steps: Step 1401: The base station sends in the super frame header (the primary superframe header or the secondary superframe header) Instructing information and encoding parameter information, the indication information being used to indicate whether the non-user-specific control information is transmitted on a frequency set constituting a frequency reuse region having a frequency reuse factor of 1, or a frequency reuse region constituting a frequency reuse factor of 1/3 The highest power level is transmitted on the set of frequencies, and the coding parameter information is used to describe the non-user-specific control information coding manner.
  • Step 1401 The base station sends in the super frame header (the primary superframe header or the secondary superframe header) Instructing information and encoding parameter information, the indication information being used to indicate whether the non-user-specific control information is transmitted on a frequency set constituting a frequency reuse region having a frequency reuse factor of 1, or a frequency reuse region constituting a frequency reuse factor of 1/3
  • the highest power level is transmitted on the set of frequencies, and the
  • Step 1402 The terminal uses the super frame header to obtain information about decoding non-user-specific control information.
  • the coding parameter information includes, but is not limited to, at least one of the following: a modulation coding mode (QPSK), a repetition number, an encoding code rate, a multi-antenna coding/pre-coding parameter, and a number of occupied resources.
  • the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets.
  • the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information.
  • the superframe header format is as shown in Table 4 (a) and Table 4 (b). It should be noted that, in the foregoing embodiment, non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information.
  • Embodiment 10 uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 12 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. .
  • 15 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into three frequency sets according to FIG. 12, Forming a frequency reuse area (the frequency reuse factor is 1/3), as shown in FIG. 13, the BS-A transmits the user-specific control information mainly includes the following steps: Step 1501, the base station is configured to have a frequency reuse factor of 1/3.
  • the non-user-specific control information is sent on the frequency set with the highest power level of the frequency reuse area, and the coding mode of the non-user-specific control information is indicated by the super frame header.
  • Step 1502 The terminal decodes non-user-specific control information.
  • the coding parameter information includes, but is not limited to, at least one of the following: a modulation coding mode (QPSK), a repetition number, an encoding code rate, a multi-antenna coding/pre-coding parameter, and a number of occupied resources.
  • QPSK modulation coding mode
  • the non-user-specific control information indicates whether the user-specific control is sent on the other frequency sets. Information.
  • the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information.
  • resource allocation information Assignment A-MAP
  • power control information Assignment A-MAP
  • hybrid automatic repeat request feedback information Assignment A-MAP
  • group allocation information Group allocation information
  • permanent resource allocation information Assignment A-MAP
  • non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information.
  • the superframe header format is as shown in Table 5. Table 5 Superframe header format
  • Embodiment 11 takes the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example, and illustrates that the base station (BS-A) of the cell A in FIG. 3 transmits non-user-specific control information.
  • . 16 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG. Forming two frequency reuse regions (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse region with a frequency reuse factor of 1/3 includes three frequency sets, and the frequency reuse region with a frequency reuse factor of 1 includes one frequency As shown in FIG.
  • the BS-A transmits user-specific control information mainly includes the following steps: Step 1601: The base station sends indication information in a superframe header (a primary superframe header or a secondary superframe header), where The indication information is used to indicate whether the non-user-specific control information is transmitted on a frequency set constituting a frequency reuse region having a frequency reuse factor of 1, or is transmitted on a frequency set having the highest power level of a frequency reuse region constituting a frequency reuse factor of 1/3. .
  • Step 1602 The terminal uses the superframe header to obtain information about decoding non-user-specific control information.
  • the non-user-specific control information is transmitted on a frequency set of a frequency reuse region having a frequency reuse factor of 1, and is transmitted when transmitted on a frequency set having the highest power level constituting a frequency reuse region having a frequency reuse factor of 1/3.
  • the encoding parameters are configured by default by the standard and can be the same or different.
  • the coding parameter information includes, but is not limited to, at least one of the following: a modulation coding mode (QPSK), a repetition number, an encoding code rate, a multi-antenna coding/pre-coding parameter, and a number of occupied resources.
  • the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets.
  • the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information.
  • resource allocation information Assignment A-MAP
  • power control information Assignment A-MAP
  • hybrid automatic repeat request feedback information Assignment A-MAP
  • group allocation information Group allocation information
  • permanent resource allocation information Assignment A-MAP
  • the super frame header format is as shown in Table 1, or Table 2, or Table 3.
  • non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario of transmitting user-specific control information, or transmitting non-user-specific control information and user-specific control information.
  • Embodiment 12 The embodiment will be described by taking the frame structure shown in FIG. 2 and the frequency resource allocation method shown in FIG.
  • the BS-A transmits the user-specific control information mainly includes the following steps: Step 1701, the base station is configured to have a frequency reuse factor of 1/3.
  • the non-user-specific control information is sent on the frequency set with the highest power level of the frequency reuse area, and the coding mode of the non-user-specific control information is configured by the standard default.
  • the coding parameter information includes, but is not limited to, at least one of the following: modulation coding mode
  • the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets.
  • the user-specific control information includes, but is not limited to, at least one of the following: resource allocation information (Assignment ⁇ - ⁇ ), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information.
  • resource allocation information Assignment ⁇ - ⁇
  • power control information Assignment ⁇ - ⁇
  • hybrid automatic repeat request feedback information Assignment ⁇ - ⁇
  • group allocation information the foregoing embodiment, non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario of transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information.

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Abstract

The present invention provides a method for transmitting control information and unicast service control channels region information, wherein all or part of the frequency resources of the time region for transmitting control information include: multiple frequency reuse regions or one frequency reuse region. The frequency reuse factors in the multiple frequency reuse regions are different, and each frequency reuse region includes one or more frequency sets. The method for transmitting control information includes: a base station transmits control information on the frequency reuse region with the smallest frequency reuse factor in said time region. On the basis of the solution provided by the present invention, the control information of the wireless communication system can be transmitted equitably and efficiently, and the performance of the whole wireless communication system can be improved.

Description

控制信息及单播业务控制信道区域信息  Control information and unicast service control channel area information
的传输方法 技术领域 本发明涉及移动通信技术领域,尤其涉及一种控制信息及单播业务控制 信道区域信息的传输方法。 背景技术 无线通信***中,基站是指给终端提供服务的设备,基站通过上下行链 路与终端进行通信, 其中, 下行链路 (DownLink, 简称为 DL, 也称作前向 链路) 是指基站到终端的方向, 上行链路 ( UpLink , 简称为 UL , 也称作反 向链路) 是指终端到基站的方向。 多个终端可同时通过上行链路向基站发送 数据, 也可以通过下行链路同时从基站接收数据。 在釆用基站调度控制的数据传输***中, 通常由基站调度分配***资 源, 例如, 由基站分配其进行下行传输的资源以及终端进行上行传输时所能 使用的资源等。 在釆用正交频分多址接入 ( Orthogonal Frequency Division Multiplex TECHNICAL FIELD The present invention relates to the field of mobile communications technologies, and in particular, to a control method and a method for transmitting unicast service control channel region information. In a wireless communication system, a base station refers to a device that provides a service to a terminal, and the base station communicates with the terminal through an uplink and downlink link, wherein a downlink (DownLink, hereinafter referred to as a forward link) refers to In the direction from the base station to the terminal, the uplink (UpLink, also referred to as UL, also referred to as the reverse link) refers to the direction of the terminal to the base station. Multiple terminals can simultaneously transmit data to the base station through the uplink, or can simultaneously receive data from the base station through the downlink. In a data transmission system in which base station scheduling control is used, a system resource is usually allocated by a base station, for example, a resource allocated by the base station for downlink transmission and a resource usable by the terminal for uplink transmission. Orthogonal Frequency Division Multiplex (Orthogonal Frequency Division Multiplex)
Access, 简称为 OFDMA )技术的时分双工 (Time Division Duplex, 简称为 TDD )或频分双工( Frequency Division Duplex, 简称为 FDD )无线通信*** ( iH -k^ IEEE 802.16m ) 中, 非用户专有控制信息 (Non-user-specific control information, 或者, Non-user-specific Advanced - MAP )是指不 4十对某个特定 用户或某特定用户组的信息。 通常, 非用户专有控制信息包括解码用户专有 控制信息( User specific control information )所需的信息, 其中, 用户专有控 制信息是指针对某个特定用户或某特定用户组的信息, 通常包括资源分配信 息 ( Assignment Advanced-MAP ) , 功率控制信息 ( Power Control Advanced-MAP )、 混合自动重传请求 ( Hybrid Automatic Repeat Request, 简 称为 HARQ )反馈信息 ( HARQ Feedback Advanced-MAP ) 等。 在釆用 OFDMA技术的 TDD或 FDD无线通信***的实际应用中, 通 常釆用部分频率重用 (Fractional Frequency Reuse, 简称为 FFR)技术。 图 1 指示了一种部分频率重用技术的实现, 在图 1中救出了相邻三个小区的频率 资源分配方式及各个频率集合的发射功率限制情况 (功率级别)。 如图 1 所 示 , 将 所 有 可 用 下 行 频 率 资 源 划 分 为 7 个 频 率 集 合Access, referred to as OFDMA) technology, Time Division Duplex (TDD) or Frequency Division Duplex (FDD) wireless communication system (iH-k^IEEE 802.16m), non-user Non-user-specific control information (or non-user-specific Advanced - MAP) refers to information that is not for a specific user or a specific group of users. Generally, the non-user-specific control information includes information required to decode user specific control information, where the user-specific control information is information indicating a specific user or a specific user group, and usually includes Assignment Advanced-MAP, Power Control Advanced-MAP, Hybrid Automatic Repeat Request (HARQ) feedback information ( HARQ Feedback Advanced-MAP), etc. In practical applications of TDD or FDD wireless communication systems using OFDMA technology, Fractional Frequency Reuse (FFR) technology is usually used. Figure 1 indicates an implementation of a partial frequency reuse technique. In Figure 1, the frequency resource allocation mode of adjacent three cells and the transmission power limitation (power level) of each frequency set are rescued. As shown in Figure 1, all available downlink frequency resources are divided into 7 frequency sets.
W :[W„W2,W,WU,W2 ,WU,WU ] , 其中, ,f 2,f 3构成的频率重用区域的频率重 用因子 (Reuse Factor ) 为 1/3 (在某些文献中定义这种情况下的频率重用因 子为 3 ), 即 , f 2,f 3中的频率资源分配给三个相邻小区中一个小区, 而其他 两个小区则不能使用该频率资源, 或者其他两个小区需要釆用限制其发射功 率的方法来使用该频率资源,称 , f 2,f 3构成的频率重用区域的 Reuse Factor W : [W„W 2 , W, W U , W 2 , W U , W U ] , where , the frequency reuse factor of the frequency reuse region composed of f 2 and f 3 is 1/3 (in In some documents, the frequency reuse factor in this case is defined as 3), that is, the frequency resources in f 2 , f 3 are allocated to one of three neighboring cells, and the other two cells cannot use the frequency resource. , or the other two cells need to use the frequency resource to limit the transmission power of the frequency resource, that is, the Reuse Factor of the frequency reuse region composed of f 2 and f 3
= 1/3; WU,W23,WU 构成的频率重用区 i或的频率重用因子为 2/3 (在某些文献 中定义这种情况下的频率重用因子为 3/2), 即^2,^23,^3中的频率资源分配 给三个相邻小区中两个小区, 而第三个小区则不能使用该频率资源或者需要 釆用限制其发射功率的方法来使用该频率资源,称 2 , f 23 , 3构成的频率重用 区域的 Reuse Factor = 2/3; 23构成的频率重用区域的频率重用因子为 1, 即 三个相邻小区都可以不加限制的使用该频率资源, 称 23构成的频率重用区 域的 Reuse Factor = 1。 从图 1可以看出, 每个小区中, 不同频率集合由于千 扰级别的不同导致其下行覆盖范围是不一样的, 对小区 A而言, 频率集合 上的下行千扰级别最小, 覆盖范围最大, 对小区 B而言, 频率集合 ^的下行 千扰级别最小,覆盖范围最大,对小区 C而言,频率集合 ^的千扰级别最小, 覆盖范围最大。 目前, 在使用 OFDMA技术 (特别是釆用 FFR技术) 的无线通信*** 中, 对于如何合理高效地传输非用户专有控制信息和用户专有控制信息还没 有具体的解决方案。 发明内容 有鉴于此,本发明提供了一种控制信息及单播业务控制信道区域信息的 传输方法, 用以解决现有技术中不能合理高效地传输控制信息的问题。 根据本发明的一个方面, 提供了一种控制信息的传输方法。 其中, 传输 控制信息的时间区域的全部或部分频率资源包括: 多个频率重用区域, 该多 个频率重用区域中的频率重用因子不同, 且每个频率重用区域包括一个或多 个频率集合。 根据本发明的控制信息的传输方法包括:基站在上述时间区域的频率重 用因子最小的频率重用区域上传输控制信息。 具体地,基站可以在频率重用因子最小的频率重用区域的部分或全部分 布式逻辑资源上传输上述控制信息。 或者,基站在频率重用因子最小的频率重用区域的部分或全部频率集合 上传输上述控制信息。 或者,基站在频率重用因子最小的频率重用区域中功率级别最高的频率 集合上传输上述控制信息。 进一步地,基站可以在该功率级别最高的频率集合的部分或全部分布式 逻辑资源上传输上述控制信息。 具体地,上述控制信息包括:非用户专有控制信息或用户专有控制信息。 其中, 非用户专有控制信息包括但不限于: 指示传输用户专有控制信息 所使用的资源的信息。 并且, 非用户专有控制信息还可以包括: 用于指示除频率重用因子最小 的频率重用区域外的其它频率重用区域上是否传输非用户专有控制信息和 / 或用户专有控制信息的标识。 用户专用控制信息包括但不限于以下至少之一: 资源分配信息、 功率控 制信息、 混合自动重传请求反馈信息。 具体地, 基站可以通过广播、 组播、 或单播中的任一方式传输上述控制 信息。 根据本发明的另一个方面,提供了一种单播业务控制信道区域信息的传 输方法, 其中, 传输单播业务控制信道区域信息的时间区域的全部或部分频 率资源包括多个频率重用区域, 且每个频率重用区域包括一个或多个频率集 合。 根据本发明的单播业务控制信道区域信息的传输方法包括:基站在上述 时间区域的满足预设条件的频率集合下传输上述单播业务控制信道区域信 息。 其中, 上述预设条件包括: 下行千扰级别最小或下行覆盖范围最大。 具体地, 上述单播业务控制信道区域信息包括但不限于: 非用户专有控 制信息和 /或用户专有控制信息。 进一步地 ,基站通过广播信道通知终端传输上述单播业务控制信道区域 信息所釆用的资源。 具体地 ,基站可以在满足上述预设条件的频率集合的部分或全部分布式 逻辑资源上传输上述单播业务控制信道区域信息。 并且, 基站可以通过广播、 组播、 或单播中的任一方式传输上述单播业 务控制信道区域信息。 根据本发明的另一个方面, 提供了一种控制信息的传输方法。 其中, 传 输控制信息的时间区域的全部或部分频率资源包括: 多个频率重用区域, 多 个频率重用区域中的频率重用因子不同, 且每个频率重用区域包括一个或多 个频率集合。 根据本发明的控制信息的传输方法包括:基站在超帧头中指示发送控制 信息的频率重用区域或频率集合。 具体地,当超帧头指示控制信息在频率重用因子最小的频率重用区域上 发送时, 基站在该频率重用区域的部分或全部分布式逻辑资源上传输上述控 制信息。 或者,基站在频率重用因子最小的频率重用区域的部分或全部频率集合 上传输上述控制信息。 或者,基站在频率重用因子最小的频率重用区域中功率级别最高的频率 集合上传输上述控制信息。 进一步地,基站可以在该功率级别最高的频率集合的部分或全部分布式 逻辑资源上传输上述控制信息。 具体地, 上述控制信息包括: 非用户专有控制信息和 /或用户专有控制 信息。 其中, 非用户专有控制信息包括但不限于: 指示传输用户专有控制信息 所使用的资源的信息。 并且, 非用户专有控制信息还可以包括: 用于指示除频率重用因子最小 的频率重用区域外的其它频率重用区域上是否传输用户专有控制信息。 用户专用控制信息包括但不限于以下至少之一: 资源分配信息、 功率控 制信息、 混合自动重传请求反馈信息。 具体地, 上述时间区域由一个或多个子帧构成。 根据本发明的另一个方面, 提供了一种控制信息的传输方法。 其中, 传 输控制信息的时间区域的全部或部分频率资源包括: 一个频率重用区域, 且 该频率重用区域包括多个频率集合。 根据本发明的控制信息的传输方法包括:基站在构成该频率重用区域的 功率级别最高的频率集合上发送控制信息。 具体地 ,基站可以在该功率级别最高的频率集合的部分或全部分布式逻 辑资源上传输上述控制信息。 具体地, 上述控制信息包括: 非用户专有控制信息或 /或用户专有控制 信息。 其中, 非用户专有控制信息包括但不限于: 指示传输用户专有控制信息 所使用的资源的信息。 并且, 非用户专有控制信息还可以包括: 用于指示除频率重用因子最小 的频率重用区域外的其它频率重用区域上是否传输用户专有控制信息。 用户专用控制信息包括但不限于以下至少之一: 资源分配信息、 功率控 制信息、 混合自动重传请求反馈信息。 具体地, 上述时间区域由一个或多个子帧构成。 根据本发明的另一个方面, 提供了一种控制信息的传输方法。 其中, 传 输控制信息的时间区域的全部或部分频率资源包括: 一个或多个频率重用区 域, 不同频率重用区域中的频率重用因子不同, 且每个频率重用区域包括一 个或多个频率集合。 根据本发明的控制信息的传输方法包括:基站在不同频率集合上发送所 述控制信息时釆用相同或不同的编码参数。 具体地, 基站通过超帧头指示发送控制信息的频率集合或频率重用区 域。 具体地,不同频率集合上发送所述控制信息时釆用的所述编码参数是标 准缺省配置的。 具体地, 所述基站通过超帧头指示发送所述控制信息的编码参数。 进一步地, 所述编码参数包括但不限于以下至少之一: 调制编码方式, 重复次数, 编码码率, 多天线编码 /预编码参数, 占用的资源数。 具体地, 上述控制信息包括: 非用户专有控制信息和 /或用户专有控制 信息。 其中, 非用户专有控制信息包括但不限于: 指示传输用户专有控制信息 所使用的资源的信息。 并且, 非用户专有控制信息还可以包括: 用于指示除频率重用因子最小 的频率重用区域外的其它频率重用区域上是否传输用户专有控制信息。 用户专用控制信息包括但不限于以下至少之一: 资源分配信息、 功率控 制信息、 混合自动重传请求反馈信息。 具体地, 上述时间区域由一个或多个子帧构成。 通过本发明的上述至少一个方案,通过在时间区域的频率重用因子最小 的频率重用区域上传输非用户专有控制信息和用户专有控制信息, 提供了一 种合理高效地传输控制信息的方法, 解决了现有技术中不能合理高效地传输 控制信息的问题, 从而可以合理高效地传输无线通信***的控制信息, 提高 整个无线通信***的性能。 本发明的其它特征和优点将在随后的说明书中阐述, 并且, 部分地从说 明书中变得显而易见, 或者通过实施本发明而了解。 本发明的目的和其他优 点可通过在所写的说明书、 权利要求书、 以及附图中所特别指出的结构来实 现和获得。 附图说明 附图用来提供对本发明的进一步理解, 并且构成说明书的一部分, 与本 发明的实施例一起用于解释本发明, 并不构成对本发明的限制。 在附图中: 图 1为现有技术中一种部分频率重用技术的实现示意图; 图 2为 IEEE 802.16m的帧结构示意图; 图 3为一种频率资源分配方式示意图; 图 4为实施例一的流程图; 图 5为一种帧结构示意图; 图 6为实施例二的流程图; 图 7为实施例三的流程图; 图 8为实施例四的 ¾ϊ程图; 图 9为实施例五的流程图; 图 10为实施例六的 ¾i程图; 图 11为实施例七的流程图; 图 12为另一种频率资源分配方式示意图; 图 13为实施例八的流程图; 图 14为实施例九的流程图; 图 15为实施例十的流程图; 图 16为实施例十一的流程图; 图 17为实施例十二的流程图。 具体实施方式 功能相克述 本发明实施例针对如何传输非用户专有控制信息和 /或用户专有控制信 息等控制信息的需求, 提出了一种控制信息的传输方法及一种单播业务控制 信道区域信息的传输方法。 在本发明实施例中, 基站在发送控制信息时, 至 少在当前时间区域的频率重用因子最小的频率重用区域上传输该控制信息, 或者通过超帧头中字段指示发送控制信息的频率重用区域或频率集合, 所述 超帧头中携带***配置信息, 通常由主超帧头和辅超帧头构成 (又称为主广 播信道或辅广播信道), 紧随在主同步信道或辅同步信道之后; 而在发送单播 业务控制信道区域信息时, 基站至少在当前时间区域的下行千扰级别最小或 小行覆盖范围最大的频率集合下传输单播业务控制信道区域信息。 其中, 上述控制信息包括: 用户专有控制信息 (即 User specific control information )和非用户专有控制信息 (即 Non-user-specific control information, 或者 , Non-user-specific Advanced - MAP )。 上述单播业务控制信道区域信息包括但不限于:用户专有控制信息和非 用户专有控制信息。 上述时间区 i或可以由一个或多个子帧构成。 在不冲突的情况下, 本申请中的实施例及实施例中的特征可以相互组 合。 以下结合附图对本发明的优选实施例进行说明, 应当理解, 此处所描述 的优选实施例仅用于说明和解释本发明, 并不用于限定本发明。 根据本发明实施例, 首先提供了一种控制信息的传输方法, 其中, 传输 控制信息的时间区域的部分或全部频率资源包括: 多个频率重用区域,其中, 多个频率重用区域中的各频率重用区域的频率重用因子不相同, 且每个频率 重用区域包括一个或多个频率集合。 根据本发明实施例的控制信息的传输方法包括:基站在上述时间区域的 频率重用因子最小的频率重用区域上传输控制信息。 其中, 上述控制信息包括: 非用户专有控制信息和用户专有控制信息, 其中, 非用户专有控制信息包括: 指示传输用户专有控制信息所使用的资源 的信息; 用户专用控制信息包括但不限于: 资源分配信息、 功率控制信息、 HARQ反馈信息等。 在具体实施过程中, 基站可以通过广播、组播和单播中的任意一种的方 式在上述频率重用因子最小的频率重用区域上传输上述控制信息。 并且, 如 果频率重用因子最小的频率重用区域中只包含一个频率集合, 则基站可以在 该频率重用区域的部分或全部分布式逻辑资源上传输该控制信息; 如果频率 重用因子最小的频率重用区域中包含多个频率集合, 则基站可以在该多个频 率集合中的部分或全部频率集合上传输该控制信息, 或者, 基站也可以在这 多个频率集合中功率级别 (即发射功率限制情况) 最高的频率集合上传输该 控制信息, 进一步地, 基站可以在该功率级别最高的频率集合的部分或全部 分布逻辑资源上传输该控制信息。 基站可以在上述频率重用因子最小的频率重用区域的一个或多个频率 重用集合上传输上述控制信息, 如果基站在上述多个频率集合中功率级别最 高的频率集合上传输控制信息, 同时,还在其它频率集合上传输该控制信息, 如果该控制信息为非用户专用控制信息,则该非用户专用控制信息中还包括: 指示除该功率级别最高的频率集合外的其它频率集合上是否传输非用户专有 控制信息和 /或用户专有控制信息的标识。 在具体实施过程中, 上述标识可以用一个字段来表示, 该字段的长度可 以才艮据实际需要而定。 另外,基站除了在上述频率重用因子最小的频率重用区域上传输上述控 制信息外, 还可以在其它频率重用区域上传输该控制信息, 因此, 在传输非 用户专有控制信息时, 该非用户专有控制信息还包括: 指示除上述频率重用 因子最小的频率重用区域外的其它频率重用区域上是否传输非用户专有控制 信息和 /或用户专用控制信息。 并且, 基站在传输非用户专有控制信息时, 可以通过广播信道通过终端 传输非用户专有控制信息所釆用的资源, 即在哪些时频资源上传输非用户专 有控制信息。 具体地, 在本发明实施例的上述控制信息的传输方法中, 上述时间区域 可以包括一个或多个子帧。 通过本发明实施例提供的上述控制信息的传输方法,可以合理高效针传 输无线通信***的控制信息, 提高整个无线通信***的性能。 为了进一步理解本发明实施例提供的上述技术方案,以下通过具体的实 施例对本发明实施例提供的上述控制信息的传输方法进行详细说明。 在下面的实施例中, 以 IEEE 802.16m***为例, 对本发明实施例提供 的技术方案进行说明, 图 2为 IEEE 802.16m的帧结构示意图, 如图 2所示, 整个无线资源被划分成超帧、 帧、 子帧和 OFDM符号等不同结构粒度。 具体 地, 可以首先将无线资源划分为时间上连续的超帧 ( Super Frame ), 每个超 帧的时间长度为 20毫秒、, 每个超帧由 4个 5毫秒、时间长度的帧 ( Frame ) 组 成, 每帧包含 8个子帧 (SF ), 每个子帧由 6个 OFDM符号组成。 在下面的实施例中, 個_设相邻三个小区的频率资源分配方式如图 3 所 示, 所有可用下行频率资源划分为 4 个频率集合 : [^'^'^' ^23] , 其中, = 1/3; W U , W 23 , W U constitutes a frequency reuse factor i or a frequency reuse factor of 2/3 (in some literature, the frequency reuse factor is 3/2 in this case), ie The frequency resource in ^ 2 , ^ 23 , ^ 3 is allocated to two cells in three neighboring cells, and the third cell cannot use the frequency resource or needs to use the method of limiting its transmission power to use the frequency resource. , the frequency reuse region of 2 , f 23 , 3 is Reuse Factor = 2/3; 23 The frequency reuse factor of the frequency reuse region is 1, that is, three adjacent cells can use the frequency resource without restriction. , Reuse Factor = 1 of the frequency reuse area composed of 23 . As can be seen from Figure 1, in each cell, different frequency sets have different downlink coverage due to different interference levels. For cell A, the downlink interference level on the frequency set is the smallest and the coverage is the largest. For cell B, the downlink aggregation level of the frequency set ^ is the smallest and the coverage is the largest. For the cell C, the frequency set ^ has the smallest interference level and the largest coverage. At present, in a wireless communication system using OFDMA technology (especially FFR technology), there is no specific solution for how to transmit non-user-specific control information and user-specific control information reasonably and efficiently. SUMMARY OF THE INVENTION In view of this, the present invention provides a control information and unicast service control channel area information. The transmission method is used to solve the problem that the control information cannot be transmitted reasonably and efficiently in the prior art. According to an aspect of the present invention, a method of transmitting control information is provided. The all or part of the frequency resources of the time zone in which the control information is transmitted includes: a plurality of frequency reuse zones, the frequency reuse factors in the plurality of frequency reuse zones are different, and each frequency reuse zone includes one or more frequency sets. The transmission method of control information according to the present invention includes the base station transmitting control information on a frequency reuse area having the smallest frequency reuse factor in the time zone. Specifically, the base station may transmit the foregoing control information on part or all of the distributed logical resources of the frequency reuse area with the smallest frequency reuse factor. Alternatively, the base station transmits the above control information on a part or all of the frequency set of the frequency reuse region having the smallest frequency reuse factor. Alternatively, the base station transmits the above control information on a frequency set having the highest power level in the frequency reuse region where the frequency reuse factor is the smallest. Further, the base station may transmit the foregoing control information on part or all of the distributed logical resources of the highest frequency set of the power level. Specifically, the above control information includes: non-user-specific control information or user-specific control information. The non-user-specific control information includes but is not limited to: information indicating a resource used to transmit user-specific control information. Moreover, the non-user-specific control information may further include: an identifier for indicating whether to transmit non-user-specific control information and/or user-specific control information on other frequency reuse areas except the frequency reuse area having the smallest frequency reuse factor. The user-specific control information includes, but is not limited to, at least one of the following: resource allocation information, power control information, and hybrid automatic repeat request feedback information. Specifically, the base station may transmit the foregoing control information by any one of broadcast, multicast, or unicast. According to another aspect of the present invention, a method for transmitting unicast service control channel region information is provided, wherein all or part of a time region of a unicast service control channel region information is transmitted. The rate resource includes a plurality of frequency reuse regions, and each frequency reuse region includes one or more frequency sets. The method for transmitting unicast service control channel region information according to the present invention includes: the base station transmitting the unicast service control channel region information under a frequency set satisfying a preset condition in the time zone. The foregoing preset conditions include: the downlink interference level is the smallest or the downlink coverage is the largest. Specifically, the foregoing unicast service control channel region information includes but is not limited to: non-user-specific control information and/or user-specific control information. Further, the base station notifies the terminal to transmit the resources used by the unicast service control channel region information through the broadcast channel. Specifically, the base station may transmit the unicast service control channel region information on part or all of the distributed logical resources of the frequency set that meets the foregoing preset condition. Moreover, the base station may transmit the foregoing unicast service control channel region information by any one of broadcast, multicast, or unicast. According to another aspect of the present invention, a method of transmitting control information is provided. The all or part of the frequency resources of the time zone in which the control information is transmitted includes: a plurality of frequency reuse zones, the frequency reuse factors in the plurality of frequency reuse zones are different, and each frequency reuse zone includes one or more frequency sets. A method of transmitting control information according to the present invention includes the base station indicating a frequency reuse region or a frequency set in which transmission control information is transmitted in a superframe header. Specifically, when the superframe header indicates that the control information is transmitted on the frequency reuse region where the frequency reuse factor is the smallest, the base station transmits the above control information on part or all of the distributed logical resources of the frequency reuse region. Alternatively, the base station transmits the above control information on a part or all of the frequency set of the frequency reuse region having the smallest frequency reuse factor. Alternatively, the base station transmits the above control information on a frequency set having the highest power level in the frequency reuse region where the frequency reuse factor is the smallest. Further, the base station may transmit the foregoing control information on part or all of the distributed logical resources of the highest frequency set of the power level. Specifically, the above control information includes: non-user-specific control information and/or user-specific control information. The non-user-specific control information includes but is not limited to: information indicating a resource used to transmit user-specific control information. Moreover, the non-user-specific control information may further include: indicating whether to transmit user-specific control information on other frequency reuse areas except the frequency reuse area with the smallest frequency reuse factor. The user-specific control information includes, but is not limited to, at least one of the following: resource allocation information, power control information, and hybrid automatic repeat request feedback information. Specifically, the time zone described above is composed of one or more subframes. According to another aspect of the present invention, a method of transmitting control information is provided. The all or part of the frequency resources of the time zone in which the control information is transmitted includes: a frequency reuse zone, and the frequency reuse zone includes a plurality of frequency sets. The transmission method of control information according to the present invention includes the base station transmitting control information on a frequency set having the highest power level constituting the frequency reuse area. Specifically, the base station may transmit the foregoing control information on part or all of the distributed logical resources of the highest frequency set of the power level. Specifically, the foregoing control information includes: non-user-specific control information or/or user-specific control information. The non-user-specific control information includes but is not limited to: information indicating a resource used to transmit user-specific control information. Moreover, the non-user-specific control information may further include: indicating whether to transmit user-specific control information on other frequency reuse areas except the frequency reuse area with the smallest frequency reuse factor. User-specific control information includes but is not limited to at least one of the following: resource allocation information, power control Information, hybrid automatic retransmission request feedback information. Specifically, the time zone described above is composed of one or more subframes. According to another aspect of the present invention, a method of transmitting control information is provided. The all or part of the frequency resources of the time zone in which the control information is transmitted includes: one or more frequency reuse zones, the frequency reuse factors in the different frequency reuse zones are different, and each frequency reuse zone includes one or more frequency sets. The method for transmitting control information according to the present invention includes the base station using the same or different encoding parameters when transmitting the control information on different sets of frequencies. Specifically, the base station indicates, by using a superframe header, a frequency set or a frequency reuse area for transmitting control information. Specifically, the coding parameters used when transmitting the control information on different frequency sets are standard default configurations. Specifically, the base station indicates, by using a superframe header, an encoding parameter that sends the control information. Further, the coding parameters include, but are not limited to, at least one of the following: a modulation coding mode, a repetition number, an encoding code rate, a multi-antenna coding/pre-coding parameter, and a number of occupied resources. Specifically, the above control information includes: non-user-specific control information and/or user-specific control information. The non-user-specific control information includes but is not limited to: information indicating a resource used to transmit user-specific control information. Moreover, the non-user-specific control information may further include: indicating whether to transmit user-specific control information on other frequency reuse areas except the frequency reuse area with the smallest frequency reuse factor. The user-specific control information includes, but is not limited to, at least one of the following: resource allocation information, power control information, and hybrid automatic repeat request feedback information. Specifically, the time zone described above is composed of one or more subframes. With the above at least one aspect of the present invention, a non-user-specific control information and user-specific control information are transmitted over a frequency reuse region having a minimum frequency reuse factor in a time region, thereby providing a The method for transmitting control information reasonably and efficiently solves the problem that the control information cannot be transmitted reasonably and efficiently in the prior art, so that the control information of the wireless communication system can be transmitted reasonably and efficiently, and the performance of the entire wireless communication system is improved. Other features and advantages of the invention will be set forth in the description which follows, and The objectives and other advantages of the invention will be realized and attained by the <RTI The drawings are intended to provide a further understanding of the invention, and are intended to be a part of the description of the invention. In the drawings: FIG. 1 is a schematic diagram of an implementation of a partial frequency reuse technology in the prior art; FIG. 2 is a schematic diagram of a frame structure of an IEEE 802.16m; FIG. 3 is a schematic diagram of a frequency resource allocation manner; Figure 5 is a schematic diagram of a frame structure; Figure 6 is a flow chart of the second embodiment; Figure 7 is a flow chart of the third embodiment; Figure 8 is a third embodiment of the fourth embodiment; Figure 10 is a flow chart of the sixth embodiment; Figure 11 is a flow chart of the seventh embodiment; Figure 12 is a flow chart of another frequency resource allocation; Figure 13 is a flow chart of the eighth embodiment; a flowchart of Embodiment 9; Figure 15 is a flow chart of the tenth embodiment; Figure 16 is a flow chart of the eleventh embodiment; and Figure 17 is a flow chart of the twelfth embodiment. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS The embodiments of the present invention provide a method for transmitting control information and a unicast service control channel for how to transmit control information such as non-user-specific control information and/or user-specific control information. The method of transmitting regional information. In the embodiment of the present invention, when transmitting the control information, the base station transmits the control information on at least the frequency reuse area with the smallest frequency reuse factor in the current time zone, or indicates the frequency reuse area of the control information by using the field in the superframe header or a set of frequencies, where the superframe header carries system configuration information, usually consisting of a primary superframe header and a secondary superframe header (also referred to as a primary broadcast channel or a secondary broadcast channel), immediately following the primary synchronization channel or the secondary synchronization channel When transmitting the unicast service control channel area information, the base station transmits the unicast service control channel area information at least in the frequency set of the current time zone with the smallest downlink interference level or the smallest line coverage. The foregoing control information includes: User specific control information (Non-user-specific control information) or Non-user-specific Advanced (MAP). The above unicast service control channel area information includes, but is not limited to, user-specific control information and non-user-specific control information. The above time zone i may be composed of one or more subframes. The embodiments in the present application and the features in the embodiments may be combined with each other without conflict. The preferred embodiments of the present invention are described in the following with reference to the accompanying drawings, which are intended to illustrate and illustrate the invention. According to an embodiment of the present invention, a method for transmitting control information is first provided, where part or all of the frequency resources of the time zone of the transmission control information includes: a plurality of frequency reuse zones, wherein each frequency of the plurality of frequency reuse zones The frequency reuse factor of the reused area is different, and each frequency The reused area includes one or more sets of frequencies. The method for transmitting control information according to an embodiment of the present invention includes: the base station transmitting control information on a frequency reuse area having a smallest frequency reuse factor in the time zone. The control information includes: non-user-specific control information and user-specific control information, where the non-user-specific control information includes: information indicating a resource used to transmit the user-specific control information; the user-specific control information includes It is not limited to: resource allocation information, power control information, HARQ feedback information, and the like. In a specific implementation process, the base station may transmit the foregoing control information on a frequency reuse area with the smallest frequency reuse factor by using any one of broadcast, multicast, and unicast. And, if the frequency reuse region with the smallest frequency reuse factor includes only one frequency set, the base station may transmit the control information on part or all of the distributed logical resources of the frequency reuse region; if the frequency reuse factor has the smallest frequency reuse region Including a plurality of frequency sets, the base station may transmit the control information on some or all of the plurality of frequency sets, or the base station may also have the highest power level (ie, the transmit power limitation) in the multiple frequency sets. The control information is transmitted on the set of frequencies, and further, the base station may transmit the control information on part or all of the distributed logical resources of the highest frequency set of the power level. The base station may transmit the foregoing control information on one or more frequency reuse sets of the frequency reuse region with the smallest frequency reuse factor, if the base station transmits control information on the frequency set with the highest power level among the multiple frequency sets, and at the same time, The control information is transmitted on the other frequency set. If the control information is non-user-specific control information, the non-user-specific control information further includes: indicating whether the non-user is transmitted on the other frequency set except the frequency set with the highest power level. Identification of proprietary control information and/or user-specific control information. In the specific implementation process, the above identifier may be represented by a field, and the length of the field may be determined according to actual needs. In addition, the base station may transmit the control information on other frequency reuse areas in addition to the above-mentioned control information on the frequency reuse area where the frequency reuse factor is the smallest. Therefore, when transmitting non-user-specific control information, the non-user specializes The control information further includes: indicating whether non-user-specific control information and/or user-specific control information is transmitted on other frequency reuse areas than the frequency reuse area having the smallest frequency reuse factor. Moreover, when transmitting non-user-specific control information, the base station can pass through the terminal through the broadcast channel. The resources used to transmit non-user-specific control information, that is, on which time-frequency resources are transmitted non-user-specific control information. Specifically, in the foregoing method for transmitting control information in the embodiment of the present invention, the time zone may include one or more subframes. The foregoing method for transmitting control information provided by the embodiment of the present invention can transmit the control information of the wireless communication system reasonably and efficiently, and improve the performance of the entire wireless communication system. In order to further understand the foregoing technical solutions provided by the embodiments of the present invention, the method for transmitting the foregoing control information provided by the embodiments of the present invention is described in detail below through specific embodiments. In the following embodiments, an IEEE 802.16m system is taken as an example to describe the technical solution provided by the embodiment of the present invention. FIG. 2 is a schematic diagram of a frame structure of IEEE 802.16m. As shown in FIG. 2, the entire radio resource is divided into super Different structure granularities such as frames, frames, subframes, and OFDM symbols. Specifically, the radio resource may be first divided into time-continuous super frames, each superframe has a duration of 20 milliseconds, and each superframe consists of four frames of 5 milliseconds and a length of time (Frame). Composition, each frame contains 8 subframes (SF), and each subframe is composed of 6 OFDM symbols. In the following embodiments, the frequency resource allocation manner of the adjacent three cells is as shown in FIG. 3, and all available downlink frequency resources are divided into four frequency sets : [^'^'^' ^ 23 ] , where ,
^'^'^构成的频率重用区域的频率重用因子为 1/3 , 即 ^'^'^中的频率资 源分配给三个相邻小区中一个小区, 而其他两个小区则不能使用该频率资源 或者需要釆用限制其发射功率的方法来使用该频率资源; ^23构成的频率重 用区域的频率重用因子为 1 , 即三个相邻小区都可以不加限制的使用该频率 资源, 称 ^23构成的频率重用区域的 Reuse Factor = 1。 从图 3可以看出, 每 个小区中不同频率集合由于千扰级别的不同导致其下行覆盖范围不一样, 对 小区 A, 频率集合 ^上的下行千扰级别最小, 覆盖范围最大, 对小区 B , 频 率集合 ^的下行千扰级别最小, 覆盖范围最大, 对小区 C, 频率集合 ^的千 扰级别最小, 覆盖范围最大。 实施例一 该实施例以图 2所示的帧结构以及图 3所示的频率资源分配方式为例, 对图 3中的小区 A的基站 (BS-A )传输非用户专有控制信息进行说明。 图 4为本实施例的流程图, 假设 BS-A需要在超帧的某个子帧上传输非 用户专有控制信息,且该子帧的频率资源按照图 3所示划分成四个频率集合, 形成两个频率重用区域(其频率重用因子分别为 1/3和 1 ), 其中频率重用因 子为 1/3的频率重用区域包含三个频率集合, 频率重用因子为 1的频率重用 区域包含一个频率集合, 如图 4所示, BS-A传输非用户专有控制信息主要 包括以下步 4聚: 步骤 401 , BS-A在该子帧中频率重用因子为 1/3的频率重用区域中的功 率级别最高的频率集合 ^上通过广播方式发送非用户专有控制信息。 步骤 402, 终端利用已知信息解码上述非用户专有控制信息, 通过对这 些信息的解析确定后续工作流程。 在具体实施过程中, BS-A可以在 ^的部分或全部分布式逻辑资源块上 传输非用户专有控制信息, 在具体实施过程中, 该分布式逻辑资源块可以是 按标准缺省配置, 也可以由 BS-A在辅广播信道中通知终端通过哪些分布式 逻辑资源块发送; 并且, BS-A 还可以 ^的除标准缺省配置分布式逻辑资源 块以外的其它分布式逻辑资源块集合上传输非用户专有控制信息; 另外, The frequency reuse factor of the frequency reuse region formed by ^'^'^ is 1/3, that is, the frequency resource in ^'^'^ is allocated to one of three adjacent cells, and the other two cells cannot use the frequency. The resource may need to use the method to limit its transmit power to use the frequency resource; ^ 23 The frequency reuse region has a frequency reuse factor of 1, that is, three neighboring cells can use the frequency resource without restriction, called ^ 23 Reuse Factor = 1 for the frequency reuse region. It can be seen from FIG. 3 that different frequency sets in each cell have different downlink coverage due to different interference levels. For cell A, the downlink interference level on the frequency set is the smallest, and the coverage is the largest, and the cell B is the largest. The frequency aggregation ^ has the smallest downlink interference level and the largest coverage. For the cell C, the frequency set ^ has the smallest interference level and the largest coverage. Embodiment 1 This embodiment takes the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example. The base station (BS-A) of the cell A in FIG. 3 transmits non-user-specific control information. 4 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG. Forming two frequency reuse regions (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse region with a frequency reuse factor of 1/3 includes three frequency sets, and the frequency reuse region with a frequency reuse factor of 1 includes one frequency As shown in FIG. 4, the BS-A transmission non-user-specific control information mainly includes the following steps: Step 401: The power in the frequency reuse region where the BS-A frequency reuse factor is 1/3 in the subframe Non-user-specific control information is transmitted by broadcast on the highest-level frequency set. Step 402: The terminal decodes the non-user-specific control information by using known information, and determines a subsequent workflow by analyzing the information. In a specific implementation process, the BS-A may transmit non-user-specific control information on part or all of the distributed logical resource blocks. In a specific implementation process, the distributed logical resource block may be configured according to a standard default. It is also possible for the BS-A to notify the terminal in which the distributed logical resource blocks are transmitted in the secondary broadcast channel; and, the BS-A can also set other distributed logical resource block sets other than the standard default configuration distributed logical resource block. Transmitting non-user-specific control information; in addition,
BS-A还可以在频率重用因子为 1/3 的频率重用区域中除 ^以外的其它频率 集合上传输非用户专有控制信息; 并且, BS-A 还可以在频率重用因子为 1 的频率重用区域上传输非用户专用控制信息。 以下分别对这几种情况进行描 述。 通过辅广播信道通知终端传输非用户专有控制信息的分布式逻辑资源 块 在图 5所示的帧结构中, 每帧的第一个子帧 (即 SF0 )需要传输非用户 专有控制信息, 则在步骤 401之前, BS-A通过辅广播信道发送构成频率重 用因子为 1/3的频率重用区域中功率级别最高的频率集合 上传输非用户专 用控制信息所需的分布式逻辑资源块 (Distributed Resource Unit ) 的数目信 息, 然后执行步骤 401 , 即 BS-A在频率集合^上相应的分布式逻辑资源块 上通过广播方式 (也可以通过组播方式或单播方式) 传输非用户专有控制信 息给终端。 BS-A may also transmit non-user-specific control information on a frequency set other than ^ in a frequency reuse region with a frequency reuse factor of 1/3; and, BS-A may also be reused at a frequency reuse factor of one. Non-user-specific control information is transmitted on the area. These cases are described separately below. The distributed logical resource block that notifies the terminal to transmit the non-user-specific control information through the secondary broadcast channel. In the frame structure shown in FIG. 5, the first subframe of each frame (ie, SF0) needs to transmit non-user-specific control information. Then, before step 401, the BS-A transmits, by using the secondary broadcast channel, a distributed logical resource block required to transmit non-user-specific control information on the frequency set having the highest power level in the frequency reuse region having the frequency reuse factor of 1/3 (Distributed). The number information of the Resource Unit), and then step 401, that is, the corresponding distributed logical resource block of the BS-A on the frequency set ^ The non-user-specific control information is transmitted to the terminal through broadcast (also in multicast mode or unicast mode).
信息 (可以称为非用户专有控制信息 A ) 包含描述频率重用因子为 1的频率 重用区域中是否发送非用户专有控制信息 (称为非用户专有控制信息 B ) 的 字段, 当该字段指示频率重用因子为 1的频率重用区域中需要发送非用户专 有控制信息 B时,非用户专有控制信息 A也可以包含构成描述频率重用因子 为 1的频率重用区域的频率集合 23中传输非用户专有控制信息 B所需的分 布式逻辑资源块的数目信息。 终端通过解码辅广播信道获得该子帧的频率集合 上传输非用户专有 控制信息所需的分布式逻辑资源块的数目信息 (即 DRU Count ), 从而在频 率集合 上解码从特定索引号开始的、其数目等于 DRU Count的分布式逻辑 资源块集合, 获得非用户专有控制信息 A, 其中, 特定索引号可以由标准缺 省配置。 终端从该非用户专有控制信息 A中得知频率集合 23上是否传输非 用户专有控制信息 B。 终端通过成功解码非用户专有控制信息, 获得解码用 户专有控制信息所需的内容。 在通过标准缺省配置的分布式逻辑资源块上传输非用户专有控制信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输非用户专 有控制信息, BS-A 在频率集合 ^上的由标准缺省配置的分布式逻辑资源块 集合上通过广播方式传输非用户专有控制信息给终端, 其中, 该非用户专有 控制信息 (称为非用户专有控制信息 A ) 包含描述频率重用因子为 1的频率 重用区域中是否发送非用户专有控制信息的字段, 当该字段指示频率重用因 子为 1 的频率重用区域中需要发送非用户专有控制信息 (称为非用户专有控 制信息 B)时, 非用户专有控制信息 A也可以包含构成描述频率重用因子为 1 的频率重用区域的频率集合 23中传输非用户专有控制信息 B所需的分布式 逻辑资源块的数目信息。 终端通过成功解码频率集合 ^上由标准缺省配置的发送非用户专有控 制信息的资源, 获得非用户专有控制信息 Α。 终端从该非用户专有控制信息 中获知频率集合 23上是否传输非用户专有控制信息 Β。 如果是, 则终端通 过成功解码非用户专有控制信息, 获得解码用户专有控制信息所需的内容。 基站还在频率集合 Wx除标准缺省配置以外的其它分布式逻辑资源块上 传输非用户专有控制信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输非用户专 有控制信息, BS-A (图 3中小区 A )在 上的由标准缺省配置的分布式逻辑 资源块集合上通过广播方式传输非用户专有控制信息 (称为非用户专有控制 信息 A )给终端, 该非用户专有控制信息包含指示在频率集合 的其它分布 式逻辑资源块上是否还传输非用户专有控制信息 (称为非用户专有控制信息 B ) 的字段, 该字段可以有两种形式: 一种形式为指示比特, 用来指示在频率集合 ^的其它分布式逻辑资源 块上是否还传输非用户专有控制信息 B , 如果需要传输, 则传输非用户专有 控制信息 B所需的资源可通过标准缺省配置获得; 另一种形式为包含传输非用户专有控制信息 B所需的频率集合 上的 分布式逻辑资源块的数目信息。 终端通过成功解码频率集合 ^上由标准缺省配置的发送非用户专有控 制信息 A的资源获得非用户专有控制信息 A。 终端从该非用户专有控制信息 中得知该频率集合的其它分布式逻辑资源块上是否传输非用户专有控制信息 B , 从而, 终端才艮据相关指示获得非用户专有控制信息 B。 终端通过成功解 码非用户专有控制信息, 获得解码用户专有控制信息所需的内容。 在频率重用因子为 1/3 的频率重用区域中除 以外的其它频率集合上 传输非用户专有控制信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输非用户专 有控制信息, BS-A (图 3中小区 A )在 上的由标准缺省配置的分布式逻辑 资源块集合上通过广播方式传输非用户专有控制信息给终端, 该非用户专有 控制信息 (称为非用户专有控制信息 A ) 包含描述其它频率集合上是否传输 用户专有控制信息的字段, 如图 3所示的情况, 该字段包含 3个比特, 分别 表示频率集合 23、 WU 上是否会传输用户专有控制信息, 例如该字段 为 "011" 时, 表示频率集合 ^、 23上会传输用户专有控制信息。 终端通过成功解码频率集合 ^上由标准缺省配置的用来传输非用户专 有控制信息的资源, 获得非用户专有控制信息。 终端通过成功解码非用户专 有控制信息, 获得解码用户专有控制信息所需的内容。 实施例二 该实施例以图 2所示的帧结构以及图 3所示的频率资源分配方式为例, 对图 3中的小区 A的基站 ( BS-A )传输用户专有控制信息进行说明。 图 6为本实施例的流程图, 假设 BS-A需要在超帧的某个子帧上传输非 用户专有控制信息,且该子帧的频率资源按照图 3所示划分成四个频率集合, 形成两个频率重用区域(其频率重用因子分别为 1/3和 1 ), 其中频率重用因 子为 1/3的频率重用区域包含三个频率集合, 频率重用因子为 1的频率重用 区域包含一个频率集合, 如图 6所示, BS-A传输用户专有控制信息主要包 括以下步 4聚: 步骤 601 , BS-A在该子帧中频率重用因子为 1/3的频率重用区域中的功 率级别最高的频率集合 ^上发送用户专有控制信息。 步骤 602 , 终端利用已知信息解码上述用户专有控制信息, 通过对这些 信息的解析确定后续工作流程。 在具体实施过程中, 上述用户专有控制信息包括以下之一或其任意组 合: 资源分配信息、 功率控制信息、 HARQ反馈信息, 其中, 资源分配信息 主要包括下行资源分配信息。 终端可以为单个终端, 也可以为终端组。 以下 分别以功率控制信息和资源分配信息为例进行说明。 资源分配信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输用户专有 控制信息, BS-A (图 3中小区 A ) 在构成频率重用因子为 1/3的频率重用区 域中功率级别最高的频率集合 中的分布式逻辑资源上通过单播方式传输 资源分配信息给终端 MS-A。 终端 MS-A 通过成功解码频率集合 上发送的与自己有关的用户专有 控制信息, 得知自己接收下行数据的资源位置或发送上行数据时可使用的资 源。 The information (which may be referred to as non-user-specific control information A) includes a field describing whether or not to transmit non-user-specific control information (referred to as non-user-specific control information B) in a frequency reuse region having a frequency reuse factor of 1, when the field When the non-user-specific control information B needs to be transmitted in the frequency reuse region indicating the frequency reuse factor of 1, the non-user-specific control information A may also include the transmission non-transmission in the frequency set 23 constituting the frequency reuse region whose frequency reuse factor is 1. The number of distributed logical resource blocks required by the user-specific control information B. The terminal obtains the number information of the distributed logical resource blocks (ie, DRU Count) required to transmit the non-user-specific control information on the frequency set of the subframe by decoding the secondary broadcast channel, thereby decoding the frequency set from the specific index number. The set of distributed logical resource blocks whose number is equal to DRU Count obtains non-user-specific control information A, wherein the specific index number can be configured by the standard default. The terminal knows from the non-user-specific control information A whether or not the non-user-specific control information B is transmitted on the frequency set 23 . The terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information. In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame needs to transmit non-user-specific control information in the frame structure shown in FIG. 5, The BS-A transmits the non-user-specific control information to the terminal by using a standard default configuration of the distributed logical resource block set on the frequency set ^, wherein the non-user proprietary control information (referred to as non-user specific The control information A) includes a field describing whether to transmit non-user-specific control information in the frequency reuse region with a frequency reuse factor of 1, and when the field indicates that the frequency reuse factor has a frequency reuse factor of 1, it is necessary to transmit non-user-specific control information. (referred to as non-user-specific control information B), the non-user-specific control information A may also include a frequency set 23 constituting a frequency reuse region having a frequency reuse factor of 1 required to transmit non-user-specific control information B. The number of distributed logical resource blocks. The terminal transmits the non-user-specific control by the standard default configuration through the successful decoding of the frequency set ^ Resources for information, obtaining non-user-specific control information. The terminal learns from the non-user-specific control information whether or not the non-user-specific control information is transmitted on the frequency set 23 . If so, the terminal obtains the content required to decode the user-specific control information by successfully decoding the non-user-specific control information. The base station also transmits non-user-specific control information on the distributed logical resource blocks other than the standard default configuration of the frequency set W x. In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame is required. Transmitting non-user-specific control information, BS-A (cell A in Figure 3) transmits non-user-specific control information by broadcast on the standard set of distributed logical resource blocks configured by default (referred to as non-user-specific There is control information A) to the terminal, the non-user-specific control information including a field indicating whether non-user-specific control information (referred to as non-user-specific control information B) is also transmitted on other distributed logical resource blocks of the frequency set. The field can have two forms: One is an indication bit, which is used to indicate whether non-user-specific control information B is also transmitted on other distributed logical resource blocks of the frequency set, and if not, the non-user is transmitted. The resources required for the proprietary control information B are available through standard default configurations; another form is the distributed logic resource on the set of frequencies required to transmit non-user-specific control information B. The number of information blocks. The terminal obtains the non-user-specific control information A by successfully decoding the frequency set to transmit the non-user-specific control information A by the standard default configuration. The terminal learns from the non-user-specific control information whether the non-user-specific control information B is transmitted on other distributed logical resource blocks of the frequency set, so that the terminal obtains the non-user-specific control information B according to the relevant indication. The terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information. Transmitting non-user-specific control information on a frequency set other than the frequency reuse region with a frequency reuse factor of 1/3. In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame needs to be transmitted. Non-user-specific control information, BS-A (Cell A in Figure 3) on the distributed logic of the standard default configuration The non-user-specific control information (referred to as non-user-specific control information A) is broadcasted on the resource block set to include a field describing whether to transmit user-specific control information on other frequency sets. As shown in FIG. 3, the field includes 3 bits, which respectively indicate whether the user-specific control information is transmitted on the frequency set 2 , 3 , and W U. For example, when the field is "011", the frequency set ^, User-specific control information is transmitted on the 23rd . The terminal obtains non-user-specific control information by successfully decoding the frequency set to be used by the standard default configuration for transmitting non-user-specific control information. The terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information. Embodiment 2 This embodiment uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example to describe the transmission of user-specific control information by the base station (BS-A) of the cell A in FIG. 3. FIG. 6 is a flowchart of the embodiment, which is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG. Forming two frequency reuse regions (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse region with a frequency reuse factor of 1/3 includes three frequency sets, and the frequency reuse region with a frequency reuse factor of 1 includes one frequency As shown in FIG. 6, the BS-A transmits user-specific control information mainly includes the following steps: Step 601: The power level in the frequency reuse region where the BS-A frequency reuse factor is 1/3 in the subframe The highest frequency set ^ sends user-specific control information. Step 602: The terminal decodes the user-specific control information by using known information, and determines a subsequent workflow by analyzing the information. In the specific implementation process, the user-specific control information includes one or any combination of the following: resource allocation information, power control information, and HARQ feedback information, where the resource allocation information mainly includes downlink resource allocation information. The terminal can be a single terminal or a terminal group. The following describes the power control information and resource allocation information as an example. Resource allocation information In the frame structure shown in Figure 5, the first subframe (SF0) of each frame needs to transmit user-specific information. Control information, BS-A (cell A in Fig. 3) transmits resource allocation information to the terminal in a unicast manner on distributed logical resources in a frequency set having the highest power level in a frequency reuse region having a frequency reuse factor of 1/3 MS-A. The terminal MS-A learns the resource location of the downlink data or the resource that can be used when transmitting the uplink data by successfully decoding the user-specific control information related to itself transmitted on the frequency set.
HARQ反馈信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输用户专有 控制信息, BS-A (图 3中小区 A ) 在构成频率重用因子为 1/3的频率重用区 域中功率级别最高的频率集合 ^中的分布式逻辑资源上通过码分方式传输 HARQ反馈信息给终端 MS-A。 终端 MS-A通过成功解码频率集合 上发送的与自己有关的 HARQ反 馈信息, 得知自己是否需要重传之前发送的上行数据。 功率控制信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输用户专有 控制信息, BS-A (图 3中小区 A ) 在构成频率重用因子为 1/3的频率重用区 域中功率级别最高的频率集合 中的分布式逻辑资源上通过码分方式传输 功率控制信息给终端 MS-A。 终端 MS-A 通过成功解码频率集合 上发送的与自己有关的功率控制 信息调整自己的上行发射功率。 下行资源分配信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输用户专有 控制信息, BS-A (图 3中小区 A ) 在构成频率重用因子为 1/3的频率重用区 域中功率级别最高的频率集合 中的分布式逻辑资源上通过组播方式传输 下行资源分配信息给终端组 MS Group-A。 终端组 MS Group-A 中包含的终端通过成功解码频率集合 上发送的 与自己有关的用户专有控制信息, 得知与自己有关的下行数据发送位置。 根据本发明实施例,还提供了一种单播业务控制信道区域信息的传输方 法。 其中, 传输单播业务控制信道区域信息的时间区域的部分或全部频率资 源包括多个频率重用区域, 且每个频率重用区域包括一个或多个频率集合。 根据本发明实施例的单播业务控制信道区域信息 (Unicast Service Control Channels Region )的传输方法包括: 基站在上述时间区域的满足预设 条件的频率集合下传输单播业务控制信道区域信息, 其中, 上述预设条件包 括: 下行千扰级别最小或下行覆盖范围最大。 即, 在本发明实施例中, 基站至少在上述时间区域的下行千扰级别最小 或下行覆盖范围最大的频率集合下传输单播业务控制信道区域信息。 在具体实施过程中, 上述单播业务控制信道区域信息包括但不限于: 非 用户专有控制信息和 /或用户专有控制信息。 在具体实施过程中 ,基站可以在满足上述预设条件的频率集合的部分或 全部分布式逻辑资源上传输单播业务控制信道区域信息。 并且, 基站可以通 过广播、组播或单播中的任意一种方式传输上述单播业务控制信道区域信息。 在具体实施过程中,为了使终端可以解析出基站传输的单播业务控制信 道区域信息, 基站可以通过其广播信道通知终端传输单播业务控制信道区域 信息所釆用的资源。 具体地,在本发明实施例的上述单播业务控制信道区域信息的传输方法 中, 上述时间区域可以包括一个或多个子帧。 通过本发明实施例的上述单播业务控制信道区域信息的传输方法,可以 合理高效的传输单播业务控制信道区域信息, 提高***性能。 为了进一步理解本发明实施例提供的单播业务控制信道区域信息的传 输方法, 以下通过具体的实施例对本发明实施例提供的上述控制信息的传输 方法进行详细说明。 实施例三 该实施例以图 2所示的帧结构以及图 3所示的频率资源分配方式为例, 对图 3 中的小区 A的基站 (BS-A ) 传输单播业务控制信道区域信息进行说 明。 在本实施例中, 单播业务控制信道区域信息为非用户专有控制信息, 图 7 为本实施例的流程图, 假设基站需要在超帧的某个子帧上传输非用户专有 控制信息, 且该子帧的频率资源按照图 3所示划分成四个频率集合, 形成两 个频率重用区域(频率重用因子分别为 1/3和 1 ), 其中频率重用因子为 1/3 的频率重用区域包含三个频率集合, 频率重用因子为 1的频率重用区域包含 一个频率集合, 如图 7所示, 基站传输非用户专有控制信息主要包括以下步 骤: 步骤 701 , 基站在该子帧中下行千扰级别最小或覆盖范围最大的频率集 合上通过广播方式发送非用户专有控制信息。 步骤 702 , 终端利用已知信息解码非用户专有控制信息, 通过对这些信 息的解析确定后续工作流程。 具体地, 如图 3所示, 对于小区 A, 该子帧中下行扰级别最小或覆盖范 围最大的频率集合为 ^, BS-A可以在频率集合 的标准缺省配置的分布式 逻辑资源块上传输上述非用户专有控制信息, 也可以在频率集合 的任意部 分或全部分布式逻辑资源块上传输上述非用户专用控制信息,在这种情况下, BS-A 在辅广播信道中通知终端通过哪些分布式逻辑资源块发送非用户专有 控制信息; 并且, BS-A 除了在频率集合 上传输上述非用户专用控制信息 夕卜, 还可以在其它频率集合 上传输上述非用户专用控制信息。 以下分别对 每种情形进行描述。 通过辅广播信道通知终端传输非用户专有控制信息的分布式逻辑资源 块 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输非用户专 有控制信息, BS-A 通过辅广播信道发送下行千扰级别最小或下行覆盖最大 的频率集合 ( Lowest Interference-level Frequency Partition , 或者, LargestHARQ feedback information In the frame structure shown in Figure 5, the first subframe (SF0) of each frame needs to transmit user-specific control information, and BS-A (cell A in Figure 3) constitutes a frequency reuse factor of 1/ The distributed logical resource in the frequency set with the highest power level in the frequency reuse region of 3 transmits the HARQ feedback information to the terminal MS-A by means of code division. The terminal MS-A learns whether it needs to retransmit the previously sent uplink data by successfully decoding the HARQ feedback information related to itself sent on the frequency set. Power control information In the frame structure shown in Figure 5, the first subframe (SF0) of each frame needs to transmit user-specific control information, and BS-A (cell A in Figure 3) constitutes a frequency reuse factor of 1/ The distributed logic resources in the frequency set with the highest power level in the frequency reuse region of 3 transmit the power control information to the terminal MS-A by means of code division. The terminal MS-A adjusts its uplink transmit power by successfully decoding the power control information related to itself transmitted on the frequency set. Downlink resource allocation information In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame needs to transmit user-specific control information, and BS-A (cell A in FIG. 3) constitutes a frequency reuse factor of 1. The downlink resource allocation information is transmitted to the terminal group MS Group-A through the multicast mode on the distributed logical resources in the frequency set with the highest power level in the frequency reuse area of the /3. The terminal included in the terminal group MS Group-A learns the downlink data transmission location related to itself by successfully decoding the user-specific control information related to itself transmitted on the frequency set. According to an embodiment of the present invention, a method for transmitting unicast service control channel region information is also provided. The part or all of the frequency resources of the time zone for transmitting the unicast service control channel region information includes multiple frequency reuse regions, and each frequency reuse region includes one or more frequency sets. The method for transmitting the unicast service control channel information (the unicast service control channel region) according to the embodiment of the present invention includes: the base station transmitting the unicast service control channel region information under the frequency set that meets the preset condition in the time zone, where The above preset conditions include: The downlink interference level is the smallest or the downlink coverage is the largest. That is, in the embodiment of the present invention, the base station transmits the unicast service control channel region information at least in the frequency set with the smallest downlink interference level or the largest downlink coverage in the time zone. In a specific implementation process, the foregoing unicast service control channel area information includes but is not limited to: non-user-specific control information and/or user-specific control information. In a specific implementation process, the base station may transmit the unicast service control channel region information on part or all of the distributed logical resources of the frequency set that meets the foregoing preset condition. Moreover, the base station may transmit the unicast service control channel region information by using any one of broadcast, multicast, or unicast. In a specific implementation process, in order for the terminal to parse the unicast service control channel region information transmitted by the base station, the base station may notify the terminal through the broadcast channel of the resources used by the unicast service control channel region information. Specifically, in the foregoing method for transmitting unicast service control channel region information in the embodiment of the present invention, the time region may include one or more subframes. The unicast service control channel area information transmission method of the foregoing embodiment of the present invention can reasonably and efficiently transmit the unicast service control channel area information, thereby improving system performance. In order to further understand the method for transmitting the unicast service control channel area information provided by the embodiment of the present invention, the method for transmitting the foregoing control information provided by the embodiment of the present invention is described in detail below through a specific embodiment. Embodiment 3 In this embodiment, the frame structure shown in FIG. 2 and the frequency resource allocation mode shown in FIG. 3 are taken as an example, and the unicast service control channel region information of the base station (BS-A) of the cell A in FIG. 3 is described. In this embodiment, the unicast service control channel area information is non-user-specific control information, and FIG. 7 is a flowchart of the embodiment. It is assumed that the base station needs to transmit non-user-specific control information in a certain subframe of the superframe. And the frequency resource of the subframe is divided into four frequency sets as shown in FIG. 3 to form two frequency reuse regions (the frequency reuse factor is 1/3 and 1 respectively), wherein the frequency reuse factor is 1/3 of the frequency reuse region. The frequency reuse region having the frequency reuse factor of 1 includes a frequency set. As shown in FIG. 7, the base station transmits the non-user-specific control information, which mainly includes the following steps: Step 701: The base station downlinks in the subframe The non-user-specific control information is broadcasted on the set of frequencies with the smallest interference level or the largest coverage. Step 702: The terminal decodes the non-user-specific control information by using the known information, and determines the subsequent workflow by analyzing the information. Specifically, as shown in FIG. 3, for the cell A, the frequency set with the smallest downlink interference level or the largest coverage area in the subframe is ^, and the BS-A may be on the distributed logical resource block of the standard default configuration of the frequency set. The foregoing non-user-specific control information may be transmitted, and the non-user-specific control information may also be transmitted on any part or all of the distributed logical resource blocks of the frequency set. In this case, the BS-A notifies the terminal to pass the secondary broadcast channel. Which distributed logical resource blocks send non-user-specific control information; and, in addition to transmitting the above-mentioned non-user-specific control information on the frequency set, the BS-A may also transmit the above-mentioned non-user-specific control information on other frequency sets. Each case is described below separately. A distributed logical resource block for notifying a terminal to transmit non-user-specific control information through a secondary broadcast channel. In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame needs to transmit non-user-specific control information, BS. -A sends the lowest frequency interference level or the lowest downlink coverage ( Lowest Interference-level Frequency Partition, or Largest) through the secondary broadcast channel.
Coverage-Range Frequency Partition ) Wx上传输非用户专用控制信息所需的分 布式逻辑资源块 (Distributed Resource Unit ) 的数目信息, 然后, 基站在频 率集合 ^上相应的分布式逻辑资源块上通过广播方式传输非用户专有控制 信息给终端。 其中, 该非用户专有控制信息(称为非用户专有控制信息 A ) 包含描述 频率重用因子为 1的频率重用区域中是否发送非用户专有控制信息 (称为非 用户专有控制信息 B ) 的字段, 当该字段指示频率重用因子为 1的频率重用 区域中需要发送非用户专有控制信息 B时,非用户专有控制信息 A也可以包 含构成描述频率重用因子为 1 的频率重用区域的频率集合 23中传输非用户 专有控制信息 B所需的分布式逻辑资源块的数目信息。 终端通过解码辅广播信道获得该子帧的频率集合 上传输非用户专有 控制信息所需的分布式逻辑资源块的数目信息( DRU Count ), 从而, 在频率 集合 Wx上解码从特定索引号开始的、且数目等于 DRU Count的分布式逻辑资 源块集合, 获取非用户专有控制信息 A, 其中, 特定索引号可以由标准缺省 配置。 终端从该非用户专有控制信息 A中得知频率集合 ^23上是否传输非用 户专有控制信息 8。 终端通过成功解码非用户专有控制信息, 获得解码用户 专有控制信息所需的内容。 在通过标准缺省配置的分布式逻辑资源块上传输非用户专有控制信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输非用户专 有控制信息, BS-A (图 3中小区 A )在下行千扰级别最小或下行覆盖最大的 频率集合 上的由标准缺省配置的分布式逻辑资源块集合上通过广播方式 传输非用户专有控制信息给终端, 该非用户专有控制信息 (称为非用户专有 控制信息 A ) 包含描述频率重用因子为 1的频率重用区域中是否发送非用户 专有控制信息的字段, 当该字段指示频率重用因子为 1的频率重用区域中需 要发送非用户专有控制信息 (称为非用户专有控制信息 B ) 时, 非用户专有 控制信息 A也可以包含构成描述频率重用因子为 1的频率重用区域的频率集 合 23中传输非用户专有控制信息 B所需的分布式逻辑资源块的数目信息。 终端通过成功解码频率集合 ^上由标准缺省配置的发送非用户专有控 制信息的资源获得非用户专有控制信息 A。 终端从该非用户专有控制信息中 得知频率集合 23上是否传输非用户专有控制信息 B。 终端通过成功解码非 用户专有控制信息, 获得解码用户专有控制信息所需的内容。 基站还在频率集合 Wx除标准缺省配置以外的其它分布式逻辑资源块上 传输非用户专有控制信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输非用户专 有控制信息, BS-A 在下行千扰级别最小或下行覆盖最大的频率集合 上的 由标准缺省配置的分布式逻辑资源块集合上通过广播方式传输非用户专有控 制信息 (称为非用户专有控制信息 A ) 给终端, 该非用户专有控制信息包含 Coverage-Range Frequency Partition ) The points required to transmit non-user-specific control information on W x The number information of the distributed resource unit is distributed, and then the base station transmits the non-user-specific control information to the terminal by broadcasting on the corresponding distributed logical resource block on the frequency set. The non-user-specific control information (referred to as non-user-specific control information A) includes whether non-user-specific control information (referred to as non-user-specific control information B) is sent in a frequency reuse area that describes a frequency reuse factor of 1. a field, when the field indicates that the non-user-specific control information B needs to be transmitted in the frequency reuse region with the frequency reuse factor of 1, the non-user-specific control information A may also include a frequency reuse region that describes the frequency reuse factor of 1. The number of distributed logical resource blocks required to transmit non-user-specific control information B in the frequency set 23 is. The terminal obtains the number information (DRU Count ) of the distributed logical resource blocks required for transmitting the non-user-specific control information on the frequency set of the subframe by decoding the secondary broadcast channel, thereby decoding the specific index number on the frequency set W x The starting set of distributed logical resource blocks equal to the DRU Count obtains non-user-specific control information A, wherein the specific index number can be configured by the standard default. The terminal knows from the non-user-specific control information A whether or not the non-user-specific control information 8 is transmitted on the frequency set ^ 23 . The terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information. In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame needs to transmit non-user-specific control information in the frame structure shown in FIG. 5, BS-A (cell A in FIG. 3) broadcasts non-user-specific control information to the terminal by broadcast on a standard default configuration of distributed logical resource block sets on a frequency set with the lowest downlink interference level or the largest downlink coverage. The non-user-specific control information (referred to as non-user-specific control information A) includes a field describing whether to transmit non-user-specific control information in a frequency reuse region having a frequency reuse factor of 1, when the field indicates that the frequency reuse factor is When the non-user-specific control information (referred to as non-user-specific control information B) needs to be transmitted in the frequency reuse region of 1, the non-user-specific control information A may also include the frequency constituting the frequency reuse region that describes the frequency reuse factor of 1. The number of distributed logical resource blocks required to transmit non-user-specific control information B in set 23 . The terminal transmits the non-user-specific control by the standard default configuration through the successful decoding of the frequency set ^ The resource of the information obtains non-user-specific control information A. The terminal knows from the non-user-specific control information whether or not non-user-specific control information B is transmitted on the frequency set 23 . The terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information. The base station also transmits non-user-specific control information on the distributed logical resource blocks other than the standard default configuration of the frequency set W x. In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame is required. Transmitting non-user-specific control information, BS-A broadcasts non-user-specific control information by broadcast on the standard default configuration of distributed logical resource block sets on the lowest frequency interference level or the largest downlink coverage set ( Called as non-user-specific control information A) to the terminal, the non-user-specific control information contains
信息 (称为非用户专有控制信息 B ) 的字段,该字段可以有两种形式: 一种形式为指示比特, 用来指示在频率集合 ^的其它分布式逻辑资源 块上是否还传输非用户专有控制信息 B , 如果需要传输, 则传输非用户专有 控制信息 B所需的资源可通过标准缺省配置获得; 另一种形式为包含传输非用户专有控制信息 B所需的频率集合 上的 分布式逻辑资源块的数目信息。 终端通过成功解码频率集合 ^上由标准缺省配置的发送非用户专有控 制信息 A的资源获得非用户专有控制信息 A。 终端从该非用户专有控制信息 息 B , 终端进而根据相关指示获得非用户专有控制信息 B。 终端通过成功解 码非用户专有控制信息, 获得解码用户专有控制信息所需的内容。 A field of information (referred to as non-user-specific control information B) that can take two forms: One form is an indication bit that indicates whether non-users are also transmitted on other distributed logical resource blocks of the frequency set ^ Proprietary control information B, if transmission is required, the resources required to transmit non-user-specific control information B can be obtained through standard default configuration; another form is to include the frequency set required to transmit non-user-specific control information B Information on the number of distributed logical resource blocks. The terminal obtains non-user-specific control information A by successfully decoding the frequency set ^ on the resource of the non-user-specific control information A that is configured by default. The terminal obtains the non-user-specific control information B from the non-user-specific control information B, and the terminal further obtains the non-user-specific control information B according to the relevant instruction. The terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information.
基站还在其它多个频率重用区域中传输非用户专有控制信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输非用户专 有控制信息, BS-A 在下行千扰级别最小或下行覆盖最大的频率集合 上的 由标准缺省配置的分布式逻辑资源块集合上通过广播方式传输非用户专有控 制信息给终端, 该非用户专有控制信息(称为非用户专有控制信息 A)包含描 述其它频率集合上是否传输用户专有控制信息的字段, 如图 3所示的情况, 该字段包含 3 个比特, 分别表示频率集合 ^、 3、 WU 上是否会传输用户 专有控制信息, 例如该字段为 "011" 时, 表示频率集合 ^、 23上会传输用 户专有控制信息。 终端通过成功解码频率集合 ^上由标准缺省配置的用来传输非用户专 有控制信息的资源获得非用户专有控制信息。 终端通过成功解码非用户专有 控制信息, 获得解码用户专有控制信息所需的内容。 实施例四 该实施例以图 2所示的帧结构以及图 3所示的频率资源分配方式为例, 对图 3 中的小区 A的基站 (BS-A ) 传输单播业务控制信道区域信息进行说 明。 在本实施例中, 单播业务控制信道区域信息为用户专用控制信息, 图 8 为本实施例的流程图, 假设 BS-A需要在超帧的某个子帧上传输非用户专有 控制信息, 且该子帧的频率资源按照图 3所示划分成四个频率集合, 形成两 个频率重用区域(其频率重用因子分别为 1/3和 1 ),其中频率重用因子为 1/3 的频率重用区域包含三个频率集合, 频率重用因子为 1的频率重用区域包含 一个频率集合, 如图 8所示, BS-A传输用户专有控制信息主要包括以下步 骤: 步骤 801 , 基站在该子帧中下行千扰级别最小或覆盖范围最大的频率集 合 ^上发送用户专有控制信息。 步骤 802 , 终端利用已知信息解码与其有关的用户专有控制信息, 通过 对这些信息的解析确定后续工作流程。 在具体实施过程中, 上述用户专有控制信息包括以下之一或其任意组 合: 资源分配信息、 功率控制信息、 HARQ反馈信息, 其中, 资源分配信息 主要包括下行资源分配信息。 终端可以为单个终端, 也可以为终端组。 以下 分别以功率控制信息和资源分配信息为例进行说明。 资源分配信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输用户专有 控制信息, BS-A (图 3中小区 A )在下行千扰级别最小或覆盖范围最大的频 率集合 中的分布式逻辑资源上通过单播方式传输资源分配信息给终端 MS-A。 终端 MS-A 通过成功解码频率集合 上发送的与自己有关的用户专有 控制信息 ,得知其接收下行数据的资源位置或发送上行数据时可使用的资源。 The base station also transmits non-user-specific control information in other multiple frequency reuse areas. In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame needs to transmit non-user-specific control information, BS-A. On the set of frequencies with the lowest downlink interference level or the largest downlink coverage The non-user-specific control information is broadcasted to the terminal by a standard default configuration of the distributed logical resource block set, and the non-user-specific control information (referred to as non-user-specific control information A) is included on the other frequency set. Whether to transmit the field of the user-specific control information, as shown in FIG. 3, the field contains 3 bits, respectively, indicating whether the user-specific control information is transmitted on the frequency set ^, 3 , W U , for example, the field is " At 011", the user-specific control information is transmitted on the frequency set ^, 23 . The terminal obtains non-user-specific control information by successfully decoding the frequency set on the resource configured by the standard default configuration for transmitting non-user-specific control information. The terminal obtains the content required to decode the user's proprietary control information by successfully decoding the non-user-specific control information. Embodiment 4 This embodiment takes the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example, and performs the unicast service control channel region information for the base station (BS-A) of the cell A in FIG. Description. In this embodiment, the unicast service control channel area information is user-specific control information, and FIG. 8 is a flowchart of the embodiment. It is assumed that the BS-A needs to transmit non-user-specific control information in a certain subframe of the superframe. And the frequency resource of the subframe is divided into four frequency sets as shown in FIG. 3 to form two frequency reuse regions (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse factor is 1/3 frequency reuse. The area includes three frequency sets, and the frequency reuse area with a frequency reuse factor of 1 includes a frequency set. As shown in FIG. 8, the BS-A transmits user-specific control information mainly includes the following steps: Step 801: The base station is in the subframe The user-specific control information is transmitted on the frequency set with the smallest downlink interference level or the largest coverage area. Step 802: The terminal decodes the user-specific control information related thereto by using the known information, and determines the subsequent workflow by analyzing the information. In the specific implementation process, the user-specific control information includes one or any combination of the following: resource allocation information, power control information, and HARQ feedback information, where the resource allocation information mainly includes downlink resource allocation information. The terminal can be a single terminal or a terminal group. The following describes the power control information and resource allocation information as an example. Resource allocation information In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame needs to transmit user-specific control information, and BS-A (cell A in FIG. 3) has the minimum downlink interference level or coverage. The resource allocation information is transmitted to the terminal MS-A in a unicast manner on the distributed logical resources in the largest frequency set. The terminal MS-A learns the resource location of the downlink data or the resource that can be used when transmitting the uplink data by successfully decoding the user-specific control information related to itself transmitted on the frequency set.
HARQ反馈信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输用户专有 控制信息, BS-A (图 3中小区 A )在下行千扰级别最小或覆盖范围最大的频 率集合 ^中的分布式逻辑资源上通过码分方式传输 HARQ 反馈信息给终端 MS-A。 终端 MS-A通过成功解码频率集合 上发送的与自己有关的 HARQ反 馈信息, 得知自己是否需要重传之前发送的上行数据。 功率控制信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF0 ) 需要传输用户专有 控制信息, BS-A (图 3中小区 A )在下行千扰级别最小或覆盖范围最大的频 率集合 中的分布式逻辑资源上通过码分方式传输功率控制信息给终端 MS-A。 终端 MS-A 通过成功解码频率集合 上发送的与自己有关的功率控制 信息调整自己的上行发射功率。 下行资源分配信息 在图 5所示的帧结构中, 每帧的第一个子帧 (SF 0 )需要传输用户专有 控制信息, 基站 BS-A (图 3 中小区 A ) 在下行千扰级别最小或覆盖范围最 大的频率集合 ^中的分布式逻辑资源上通过组播方式传输下行资源分配信 息给终端组 MS Group- A„ 终端组 MS Group-A 中包含的终端通过成功解码频率集合 上发送的 与自己有关的用户专有控制信息, 得知与其有关的下行数据的发送位置。 实施例 5 该实施例以图 2所示的帧结构以及图 3所示的频率资源分配方式为例 , 对图 3中的小区 A的基站 (BS-A )传输非用户专有控制信息进行说明。 图 9为本实施例的流程图, 假设 BS-A需要在超帧的某个子帧上传输非 用户专有控制信息,且该子帧的频率资源按照图 3所示划分成四个频率集合, 形成两个频率重用区域(其频率重用因子分别为 1/3和 1 ), 其中频率重用因 子为 1/3的频率重用区域包含三个频率集合, 频率重用因子为 1的频率重用 区域包含一个频率集合, 如图 9所示, BS-A传输用户专有控制信息主要包 括以下步 4聚: 步骤 901 , 基站在超帧头 (主超帧头或辅超帧头) 中发送指示信息, 用 来指示非用户专有控制信息在频率重用因子为 1的频率重用区域上发送还是 在频率重用因子为 1/3的频率重用区域上发送。 步骤 902, 终端利用超帧头获得基站发送非用户专有控制信息所使用的 频率重用区域。 具体地, 当超帧头(如表 1所示)中指示信息指示基站在频率重用区域 为 1/3的频率重用区域上发送非用户专有控制信息时,可以理解为基站 BS-A 在该频率重用区域上功率级别最高的频率集合 W1上发送非用户专有控制信 息。 进一步地, 基站 BS-A使用频率集合 W1上的全部或部分分布式逻辑单 元发送非用户专有控制信息。 进一步地,非用户专有控制信息指示其它频率集合上是否发送用户专有 控制信息。 进一步地, 用户专用控制信息包括但不限于以下至少之一: 资源分配信 息 ( Assignment A-MAP )、 功率控制信息、 混合自动重传请求反馈信息、 组 分配信息、 永久资源分配信息。 需要指出, 上述实施例中以非用户专有控制信息为例, 该场景同样适用 于传输用户专有控制信息、 或传输非用户专有控制信息与用户专有控制信息 的场景。 表 1 超帧头格式 HARQ feedback information In the frame structure shown in Figure 5, the first subframe (SF0) of each frame needs to transmit user-specific control information, and BS-A (cell A in Figure 3) has the lowest downlink interference level or coverage. The HARQ feedback information is transmitted to the terminal MS-A by means of code division on the distributed logical resources in the largest frequency set. The terminal MS-A learns whether it needs to retransmit the previously sent uplink data by successfully decoding the HARQ feedback information related to itself sent on the frequency set. Power control information In the frame structure shown in FIG. 5, the first subframe (SF0) of each frame needs to transmit user-specific control information, and BS-A (cell A in FIG. 3) has the minimum downlink interference level or coverage. The distributed logic resources in the largest frequency set of the range transmit the power control information to the terminal MS-A by means of code division. The terminal MS-A adjusts its uplink transmit power by successfully decoding the power control information related to itself transmitted on the frequency set. Downlink resource allocation information In the frame structure shown in FIG. 5, the first subframe (SF 0 ) of each frame needs to transmit user-specific control information, and the base station BS-A (cell A in FIG. 3) is at the downlink interference level. The downlink resource allocation signal is transmitted through the multicast mode on the distributed logical resource in the smallest or largest frequency set ^ The terminal included in the terminal group MS Group-A „ terminal group MS Group-A learns the user-specific control information related to itself transmitted by successfully decoding the frequency set, and knows the transmission position of the downlink data related thereto. 5 This embodiment uses the frame structure shown in FIG. 2 and the frequency resource allocation mode shown in FIG. 3 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. 3. 9 is a flowchart of the embodiment. It is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG. Two frequency reuse regions (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse region with a frequency reuse factor of 1/3 includes three frequency sets, and the frequency reuse region with a frequency reuse factor of 1 includes a frequency set As shown in FIG. 9, the BS-A transmits user-specific control information, which mainly includes the following steps: Step 901: The base station sends indication information in a superframe header (a primary superframe header or a secondary superframe header) for indicating Non-user special Whether the control information is transmitted on the frequency reuse area with the frequency reuse factor of 1 or the frequency reuse area with the frequency reuse factor of 1/3. Step 902, the terminal uses the super frame header to obtain the base station transmits the non-user-specific control information. Specifically, when the indication information in the superframe header (as shown in Table 1) indicates that the base station transmits non-user-specific control information on the frequency reuse area where the frequency reuse area is 1/3, it can be understood as a base station. The BS-A transmits non-user-specific control information on the frequency set W1 with the highest power level on the frequency reuse area. Further, the base station BS-A transmits non-user-specific using all or part of the distributed logical unit on the frequency set W1. Control information. Further, the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets. Further, the user-specific control information includes but is not limited to at least one of the following: Resource Assignment Information (Appointment A-MAP) , power control information, hybrid automatic repeat request feedback information, group allocation information, permanent resource allocation information . It should be noted that, in the foregoing embodiment, non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information. Table 1 Superframe header format
Figure imgf000025_0001
实施例 6 该实施例以图 2所示的帧结构以及图 3所示的频率资源分配方式为例, 对图 3中的小区 A的基站 (BS-A )传输非用户专有控制信息进行说明。 图 10为本实施例的流程图, 假设 BS-A需要在超帧的某个子帧上传输 非用户专有控制信息, 且该子帧的频率资源按照图 3所示划分成四个频率集 合, 形成两个频率重用区域(其频率重用因子分别为 1/3和 1 ), 其中频率重 用因子为 1/3的频率重用区域包含三个频率集合, 频率重用因子为 1的频率 重用区域包含一个频率集合, 如图 10所示, BS-A传输用户专有控制信息主 要包括以下步 4聚: 步骤 1001 , 基站在超帧头 (主超帧头或辅超帧头) 中发送指示信息, 用来指示发送非用户专有控制信息的频率集合。 步骤 1002, 终端利用超帧头获得基站发送非用户专有控制信息所使用 的频率集合。 具体地, 基站 BS-A使用对应频率集合上的全部或部分分布式逻辑单元 发送非用户专有控制信息。 进一步地,非用户专有控制信息指示其它频率集合上是否发送用户专有 控制信息。 进一步地, 用户专用控制信息包括但不限于以下至少之一: 资源分配信 息 ( Assignment A-MAP )、 功率控制信息、 混合自动重传请求反馈信息、 组 分配信息、 永久资源分配信息。 具体地, 所述超帧头格式如表 2所示。 需要指出, 上述实施例中以非用户专有控制信息为例, 该场景同样适用 于传输用户专有控制信息、 或传输非用户专有控制信息与用户专有控制信息 的场景。 表 2 超帧头格式
Figure imgf000025_0001
Embodiment 6 This embodiment uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. . 10 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG. Forming two frequency reuse regions (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse region with a frequency reuse factor of 1/3 includes three frequency sets, and the frequency reuse region with a frequency reuse factor of 1 includes one frequency As shown in FIG. 10, the BS-A transmits user-specific control information mainly includes the following steps: Step 1001: The base station sends indication information in a super frame header (a primary superframe header or a secondary superframe header), where A set of frequencies indicating the transmission of non-user-specific control information. Step 1002: The terminal uses a superframe header to obtain a frequency set used by the base station to send non-user-specific control information. Specifically, the base station BS-A transmits non-user-specific control information using all or part of the distributed logical unit on the corresponding frequency set. Further, non-user-specific control information indicates whether user-specific is sent on other frequency sets Control information. Further, the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information. Specifically, the superframe header format is as shown in Table 2. It should be noted that, in the foregoing embodiment, non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information. Table 2 Superframe header format
Figure imgf000026_0001
Figure imgf000026_0001
实施例 7 该实施例以图 2所示的帧结构以及图 3所示的频率资源分配方式为例, 对图 3中的小区 A的基站 (BS-A )传输非用户专有控制信息进行说明。 图 11为本实施例的流程图, 假设 BS-A需要在超帧的某个子帧上传输 非用户专有控制信息, 且该子帧的频率资源按照图 3所示划分成四个频率集 合, 形成两个频率重用区域(其频率重用因子分别为 1/3和 1 ), 其中频率重 用因子为 1/3的频率重用区域包含三个频率集合, 频率重用因子为 1的频率 重用区域包含一个频率集合, 如图 11所示, BS-A传输用户专有控制信息主 要包括以下步 4聚: 步骤 1101 , 基站在超帧头 (主超帧头或辅超帧头) 中发送指示信息, 用来指示非用户专有控制信息在构成频率重用因子为 1的频率重用区域的频 率集合上发送还是在构成频率重用因子为 1/3 的频率重用区域的功率级别最 高的频率集合上发送。 步骤 1102, 终端利用超帧头获得基站发送非用户专有控制信息所使用 的频率集合。 具体地, 基站 BS-A使用对应频率集合上的全部或部分分布式逻辑单元 发送非用户专有控制信息。 进一步地,非用户专有控制信息指示其它频率集合上是否发送用户专有 控制信息。 进一步地, 用户专用控制信息包括但不限于以下至少之一: 资源分配信 息 ( Assignment A-MAP )、 功率控制信息、 混合自动重传请求反馈信息、 组 分配信息、 永久资源分配信息。 具体地, 所述超帧头格式如表 3所示。 需要指出, 上述实施例中以非用户专有控制信息为例, 该场景同样适用 于传输用户专有控制信息、 或传输非用户专有控制信息与用户专有控制信息 的场景。 表 3 超帧头格式 Embodiment 7 This embodiment uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. . FIG. 11 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG. Forming two frequency reuse regions (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse region with a frequency reuse factor of 1/3 includes three frequency sets, and the frequency reuse region with a frequency reuse factor of 1 includes one frequency Collection, as shown in Figure 11, BS-A transmits user-specific control information master The following steps are included: Step 1101: The base station sends indication information in the superframe header (the primary superframe header or the secondary superframe header) to indicate that the non-user-specific control information is reused at a frequency constituting the frequency reuse factor of 1. The transmission on the frequency set of the region is also transmitted on the frequency set having the highest power level of the frequency reuse region constituting the frequency reuse factor of 1/3. Step 1102: The terminal uses a superframe header to obtain a frequency set used by the base station to send non-user-specific control information. Specifically, the base station BS-A transmits non-user-specific control information using all or part of the distributed logical unit on the corresponding frequency set. Further, the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets. Further, the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information. Specifically, the superframe header format is as shown in Table 3. It should be noted that, in the foregoing embodiment, non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information. Table 3 Superframe header format
Figure imgf000027_0001
实施例 8 该实施例以图 2所示的帧结构以及图 12所示的频率资源分配方式为例, 对图 12中的小区 A的基站 (BS-A ) 传输非用户专有控制信息进行说明。 图 13为本实施例的流程图, 假设 BS-A需要在超帧的某个子帧上传输 非用户专有控制信息, 且该子帧的频率资源按照图 12 所示划分成三个频率 集合, 形成一个频率重用区域(其频率重用因子为 1/3 ), 如图 13所示, BS-A 传输用户专有控制信息主要包括以下步骤: 步骤 1301 ,基站在构成频率重用因子为 1/3的频率重用区域的功率级别 最高的频率集合上发送非用户专有控制信息。 步骤 1302, 终端解码非用户专有控制信息。 具体地, 基站 BS-A使用对应频率集合上的全部或部分分布式逻辑单元 发送非用户专有控制信息。 进一步地,非用户专有控制信息指示其它频率集合上是否发送用户专有 控制信息。 进一步地, 用户专用控制信息包括但不限于以下至少之一: 资源分配信 息 ( Assignment A-MAP )、 功率控制信息、 混合自动重传请求反馈信息、 组 分配信息、 永久资源分配信息。 需要指出, 上述实施例中以非用户专有控制信息为例, 该场景同样适用 于传输用户专有控制信息、 或传输非用户专有控制信息与用户专有控制信息 的场景。 实施例 9 该实施例以图 2所示的帧结构以及图 3所示的频率资源分配方式为例, 对图 3中的小区 A的基站 (BS-A )传输非用户专有控制信息进行说明。 图 14为本实施例的流程图, 假设 BS-A需要在超帧的某个子帧上传输 非用户专有控制信息, 且该子帧的频率资源按照图 3所示划分成四个频率集 合, 形成两个频率重用区域(其频率重用因子分别为 1/3和 1 ), 其中频率重 用因子为 1/3的频率重用区域包含三个频率集合, 频率重用因子为 1的频率 重用区域包含一个频率集合, 如图 14所示, BS-A传输用户专有控制信息主 要包括以下步 4聚: 步骤 1401 , 基站在超帧头 (主超帧头或辅超帧头) 中发送指示信息及 编码参数信息, 所述指示信息用来指示非用户专有控制信息在构成频率重用 因子为 1 的频率重用区域的频率集合上发送还是在构成频率重用因子为 1/3 的频率重用区域的功率级别最高的频率集合上发送, 所述编码参数信息用来 描述所述非用户专有控制信息编码方式。 步骤 1402, 终端利用超帧头获得解码非用户专有控制信息有关的信息。 具体地, 所述编码参数信息包括但不限于以下至少之一: 调制编码方式 ( QPSK ), 重复次数, 编码码率, 多天线编码 /预编码参数, 占用的资源数。 具体地,非用户专有控制信息指示其它频率集合上是否发送用户专有控 制信息。 进一步地, 用户专用控制信息包括但不限于以下至少之一: 资源分配信 息 ( Assignment A-MAP )、 功率控制信息、 混合自动重传请求反馈信息、 组 分配信息、 永久资源分配信息。 具体地, 所述超帧头格式如表 4 ( a )、 表 4 ( b ) 所示。 需要指出, 上述实施例中以非用户专有控制信息为例, 该场景同样适用 于传输用户专有控制信息、 或传输非用户专有控制信息与用户专有控制信息 的场景。 表 4 ( a ) 超帧头格式
Figure imgf000027_0001
Embodiment 8 This embodiment uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 12 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. . 13 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into three frequency sets according to FIG. 12, Forming a frequency reuse area (the frequency reuse factor is 1/3), as shown in FIG. 13, the BS-A transmits the user-specific control information mainly includes the following steps: Step 1301, the base station is configured to have a frequency reuse factor of 1/3. The non-user-specific control information is transmitted on the frequency set with the highest power level of the frequency reuse area. Step 1302: The terminal decodes non-user-specific control information. Specifically, the base station BS-A transmits non-user-specific control information using all or part of the distributed logical unit on the corresponding frequency set. Further, the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets. Further, the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information. It should be noted that, in the foregoing embodiment, non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information. Embodiment 9 This embodiment uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. . 14 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG. Two frequency reuse regions are formed (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse region with a frequency reuse factor of 1/3 includes three frequency sets, and the frequency reuse factor is a frequency of 1. The reused area includes a frequency set. As shown in FIG. 14, the BS-A transmits the user-specific control information mainly including the following steps: Step 1401: The base station sends in the super frame header (the primary superframe header or the secondary superframe header) Instructing information and encoding parameter information, the indication information being used to indicate whether the non-user-specific control information is transmitted on a frequency set constituting a frequency reuse region having a frequency reuse factor of 1, or a frequency reuse region constituting a frequency reuse factor of 1/3 The highest power level is transmitted on the set of frequencies, and the coding parameter information is used to describe the non-user-specific control information coding manner. Step 1402: The terminal uses the super frame header to obtain information about decoding non-user-specific control information. Specifically, the coding parameter information includes, but is not limited to, at least one of the following: a modulation coding mode (QPSK), a repetition number, an encoding code rate, a multi-antenna coding/pre-coding parameter, and a number of occupied resources. Specifically, the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets. Further, the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information. Specifically, the superframe header format is as shown in Table 4 (a) and Table 4 (b). It should be noted that, in the foregoing embodiment, non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information. Table 4 (a) Superframe header format
Figure imgf000029_0001
Figure imgf000030_0001
表 4 ( b ) 超帧头格式
Figure imgf000029_0001
Figure imgf000030_0001
Table 4 (b) Superframe header format
Figure imgf000030_0002
Figure imgf000030_0002
实施例 10 该实施例以图 2所示的帧结构以及图 12所示的频率资源分配方式为例, 对图 12中的小区 A的基站 (BS-A ) 传输非用户专有控制信息进行说明。 图 15为本实施例的流程图, 假设 BS-A需要在超帧的某个子帧上传输 非用户专有控制信息, 且该子帧的频率资源按照图 12 所示划分成三个频率 集合, 形成一个频率重用区域(其频率重用因子为 1/3 ), 如图 13所示, BS-A 传输用户专有控制信息主要包括以下步骤: 步骤 1501 ,基站在构成频率重用因子为 1/3的频率重用区域的功率级别 最高的频率集合上发送非用户专有控制信息, 所述非用户专有控制信息的编 码方式由超帧头指示。 步骤 1502, 终端解码非用户专有控制信息。 具体地, 所述编码参数信息包括但不限于以下至少之一: 调制编码方式 ( QPSK ), 重复次数, 编码码率, 多天线编码 /预编码参数, 占用的资源数。 具体地,非用户专有控制信息指示其它频率集合上是否发送用户专有控 制信息。 进一步地, 用户专用控制信息包括但不限于以下至少之一: 资源分配信 息 ( Assignment A-MAP )、 功率控制信息、 混合自动重传请求反馈信息、 组 分配信息、 永久资源分配信息。 需要指出, 上述实施例中以非用户专有控制信息为例, 该场景同样适用 于传输用户专有控制信息、 或传输非用户专有控制信息与用户专有控制信息 的场景。 具体地, 所述超帧头格式如表 5所示。 表 5 超帧头格式 Embodiment 10 This embodiment uses the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 12 as an example to describe the transmission of non-user-specific control information by the base station (BS-A) of the cell A in FIG. . 15 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into three frequency sets according to FIG. 12, Forming a frequency reuse area (the frequency reuse factor is 1/3), as shown in FIG. 13, the BS-A transmits the user-specific control information mainly includes the following steps: Step 1501, the base station is configured to have a frequency reuse factor of 1/3. The non-user-specific control information is sent on the frequency set with the highest power level of the frequency reuse area, and the coding mode of the non-user-specific control information is indicated by the super frame header. Step 1502: The terminal decodes non-user-specific control information. Specifically, the coding parameter information includes, but is not limited to, at least one of the following: a modulation coding mode (QPSK), a repetition number, an encoding code rate, a multi-antenna coding/pre-coding parameter, and a number of occupied resources. Specifically, the non-user-specific control information indicates whether the user-specific control is sent on the other frequency sets. Information. Further, the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information. It should be noted that, in the foregoing embodiment, non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario for transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information. Specifically, the superframe header format is as shown in Table 5. Table 5 Superframe header format
Figure imgf000031_0001
Figure imgf000031_0001
实施例 11 该实施例以图 2所示的帧结构以及图 3所示的频率资源分配方式为例, 对图 3中的小区 A的基站 (BS-A )传输非用户专有控制信息进行说明。 图 16为本实施例的流程图, 假设 BS-A需要在超帧的某个子帧上传输 非用户专有控制信息, 且该子帧的频率资源按照图 3所示划分成四个频率集 合, 形成两个频率重用区域(其频率重用因子分别为 1/3和 1 ), 其中频率重 用因子为 1/3的频率重用区域包含三个频率集合, 频率重用因子为 1的频率 重用区域包含一个频率集合, 如图 14所示, BS-A传输用户专有控制信息主 要包括以下步 4聚: 步骤 1601 , 基站在超帧头 (主超帧头或辅超帧头) 中发送指示信息, 所述指示信息用来指示非用户专有控制信息在构成频率重用因子为 1的频率 重用区域的频率集合上发送还是在构成频率重用因子为 1/3 的频率重用区域 的功率级别最高的频率集合上发送。 步骤 1602, 终端利用超帧头获得解码非用户专有控制信息有关的信息。 具体地,非用户专有控制信息在频率重用因子为 1的频率重用区域的频 率集合上发送与在构成频率重用因子为 1/3 的频率重用区域的功率级别最高 的频率集合上发送时使用的编码参数是由标准缺省配置的, 可以相同, 也可 以不同。 具体地, 所述编码参数信息包括但不限于以下至少之一: 调制编码方式 ( QPSK ), 重复次数, 编码码率, 多天线编码 /预编码参数, 占用的资源数。 具体地,非用户专有控制信息指示其它频率集合上是否发送用户专有控 制信息。 进一步地, 用户专用控制信息包括但不限于以下至少之一: 资源分配信 息 ( Assignment A-MAP )、 功率控制信息、 混合自动重传请求反馈信息、 组 分配信息、 永久资源分配信息。 具体地, 所述超帧头格式如表 1、 或表 2、 或表 3所示。 需要指出, 上述实施例中以非用户专有控制信息为例, 该场景同样适用 于传输用户专有控制信息、 或传输非用户专有控制信息与用户专有控制信息 的场景. 实施例 12 该实施例以图 2所示的帧结构以及图 12所示的频率资源分配方式为例, 对图 12中的小区 A的基站 (BS-A ) 传输非用户专有控制信息进行说明。 图 17为本实施例的流程图, 假设 BS-A需要在超帧的某个子帧上传输 非用户专有控制信息, 且该子帧的频率资源按照图 12 所示划分成三个频率 集合, 形成一个频率重用区域(其频率重用因子为 1/3 ), 如图 13所示, BS-A 传输用户专有控制信息主要包括以下步骤: 步骤 1701 ,基站在构成频率重用因子为 1/3的频率重用区域的功率级别 最高的频率集合上发送非用户专有控制信息, 所述非用户专有控制信息的编 码方式由标准缺省配置。 步骤 1702, 终端解码非用户专有控制信息。 具体地, 所述编码参数信息包括但不限于以下至少之一: 调制编码方式Embodiment 11 This embodiment takes the frame structure shown in FIG. 2 and the frequency resource allocation manner shown in FIG. 3 as an example, and illustrates that the base station (BS-A) of the cell A in FIG. 3 transmits non-user-specific control information. . 16 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into four frequency sets according to FIG. Forming two frequency reuse regions (the frequency reuse factors are 1/3 and 1 respectively), wherein the frequency reuse region with a frequency reuse factor of 1/3 includes three frequency sets, and the frequency reuse region with a frequency reuse factor of 1 includes one frequency As shown in FIG. 14, the BS-A transmits user-specific control information mainly includes the following steps: Step 1601: The base station sends indication information in a superframe header (a primary superframe header or a secondary superframe header), where The indication information is used to indicate whether the non-user-specific control information is transmitted on a frequency set constituting a frequency reuse region having a frequency reuse factor of 1, or is transmitted on a frequency set having the highest power level of a frequency reuse region constituting a frequency reuse factor of 1/3. . Step 1602: The terminal uses the superframe header to obtain information about decoding non-user-specific control information. Specifically, the non-user-specific control information is transmitted on a frequency set of a frequency reuse region having a frequency reuse factor of 1, and is transmitted when transmitted on a frequency set having the highest power level constituting a frequency reuse region having a frequency reuse factor of 1/3. The encoding parameters are configured by default by the standard and can be the same or different. Specifically, the coding parameter information includes, but is not limited to, at least one of the following: a modulation coding mode (QPSK), a repetition number, an encoding code rate, a multi-antenna coding/pre-coding parameter, and a number of occupied resources. Specifically, the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets. Further, the user-specific control information includes but is not limited to at least one of the following: resource allocation information (Assignment A-MAP), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information. Specifically, the super frame header format is as shown in Table 1, or Table 2, or Table 3. It should be noted that, in the foregoing embodiment, non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario of transmitting user-specific control information, or transmitting non-user-specific control information and user-specific control information. Embodiment 12 The embodiment will be described by taking the frame structure shown in FIG. 2 and the frequency resource allocation method shown in FIG. 12 as an example, and transmitting the non-user-specific control information to the base station (BS-A) of the cell A in FIG. 17 is a flowchart of the embodiment, and it is assumed that the BS-A needs to transmit non-user-specific control information on a certain subframe of the superframe, and the frequency resource of the subframe is divided into three frequency sets according to FIG. 12, Forming a frequency reuse area (the frequency reuse factor is 1/3), as shown in FIG. 13, the BS-A transmits the user-specific control information mainly includes the following steps: Step 1701, the base station is configured to have a frequency reuse factor of 1/3. The non-user-specific control information is sent on the frequency set with the highest power level of the frequency reuse area, and the coding mode of the non-user-specific control information is configured by the standard default. Step 1702: The terminal decodes non-user-specific control information. Specifically, the coding parameter information includes, but is not limited to, at least one of the following: modulation coding mode
( QPSK ), 重复次数, 编码码率, 多天线编码 /预编码参数, 占用的资源数。 具体地,非用户专有控制信息指示其它频率集合上是否发送用户专有控 制信息。 进一步地, 用户专用控制信息包括但不限于以下至少之一: 资源分配信 息 ( Assignment Α-ΜΑΡ )、 功率控制信息、 混合自动重传请求反馈信息、 组 分配信息、 永久资源分配信息。 需要指出, 上述实施例中以非用户专有控制信息为例, 该场景同样适用 于传输用户专有控制信息、 或传输非用户专有控制信息与用户专有控制信息 的场景。 上述这些实施例同样适用于某个子帧只包含一个频率集合的情况,在此 不——赘述。 如上所述, 借助本发明实施例提供的技术方案, 通过在合理的位置向用 户传输控制信息以改善频率资源的使用效率,提高整个无线通信***的性能。 以上所述仅为本发明的优选实施例而已, 并不用于限制本发明, 对于本 领域的技术人员来说, 本发明可以有各种更改和变化。 凡在本发明的 ^"神和 原则之内, 所作的任何修改、 等同替换、 改进等, 均应包含在本发明的保护 范围之内。 (QPSK), number of repetitions, code rate, multi-antenna coding/precoding parameters, number of resources occupied. Specifically, the non-user-specific control information indicates whether user-specific control information is transmitted on other frequency sets. Further, the user-specific control information includes, but is not limited to, at least one of the following: resource allocation information (Assignment Α-ΜΑΡ), power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation information. It should be noted that, in the foregoing embodiment, non-user-specific control information is taken as an example, and the scenario is also applicable to a scenario of transmitting user-specific control information or transmitting non-user-specific control information and user-specific control information. The above embodiments are also applicable to the case where a certain subframe contains only one frequency set, and is not described here. As described above, with the technical solution provided by the embodiment of the present invention, the performance of the entire wireless communication system is improved by transmitting control information to the user at a reasonable location to improve the efficiency of use of the frequency resource. The above description is only the preferred embodiment of the present invention, and is not intended to limit the present invention, and various modifications and changes can be made to the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the scope of the present invention are intended to be included within the scope of the present invention.

Claims

权 利 要 求 书 Claim
1. 一种控制信息的传输方法, 其中, 传输控制信息的时间区域的全部或部 分频率资源包括: 多个频率重用区域, 其中, 所述多个频率重用区域中 的各频率重用区域的频率重用因子不同, 且每个频率重用区域包括一个 或多个频率集合, 其特征在于, 所述方法包括: A method for transmitting control information, wherein all or part of a frequency resource of a time zone in which control information is transmitted includes: a plurality of frequency reuse zones, wherein frequency reuse of each frequency reuse zone in the plurality of frequency reuse zones The factors are different, and each frequency reuse region includes one or more frequency sets, and the method includes:
基站在所述时间区域的频率重用因子最小的频率重用区域上传输 所述控制信息。  The base station transmits the control information on a frequency reuse area where the frequency reuse factor of the time zone is the smallest.
2. 根据权利要求 1所述的方法, 其特征在于, 在所述频率重用因子最小的 频率重用区域传输所述控制信息包括: The method according to claim 1, wherein the transmitting the control information in the frequency reuse region with the smallest frequency reuse factor comprises:
在所述频率重用因子最小的频率重用区域的部分或全部分布式逻 辑资源上传输所述控制信息。  The control information is transmitted on some or all of the distributed logical resources of the frequency reuse region where the frequency reuse factor is the smallest.
3. 根据权利要求 1所述的方法, 其特征在于, 在所述频率重用因子最小的 频率重用区域传输所述控制信息包括: The method according to claim 1, wherein the transmitting the control information in the frequency reuse region with the smallest frequency reuse factor comprises:
在所述频率重用因子最小的频率重用区域的部分或全部频率集合 上传输所述控制信息; 或者  Transmitting the control information on a portion or all of the frequency set of the frequency reuse region having the smallest frequency reuse factor; or
在所述频率重用因子最小的频率重用区域中功率级别最高的频率 集合上传输所述控制信息。  The control information is transmitted on a frequency set having the highest power level in the frequency reuse region where the frequency reuse factor is the smallest.
4. 根据权利要求 3所述的方法, 其特征在于, 在所述功率级别最高的频率 集合上传输所述控制信息包括: The method according to claim 3, wherein the transmitting the control information on the highest frequency set of the power level comprises:
在所述功率级别最高的频率集合的部分或全部分布式逻辑资源上 传输所述控制信息。  The control information is transmitted on some or all of the distributed logical resources of the set of frequencies with the highest power level.
5. 根据权利要求 3所述的方法, 其特征在于, 所述控制信息为非用户专有 控制信息, 包括: 指示除所述功率级别最高的频率集合外的其它频率集 合上是否传输非用户专有控制信息和 /或用户专有控制信息的标识。 The method according to claim 3, wherein the control information is non-user-specific control information, including: indicating whether to transmit non-user specials on other frequency sets except the frequency set with the highest power level There is an identification of control information and/or user-specific control information.
6. 根据权利要求 1所述的方法, 其特征在于, 所述控制信息包括: 非用户 专有控制信息或用户专有控制信息。 6. The method according to claim 1, wherein the control information comprises: non-user-specific control information or user-specific control information.
7. 根据权利要求 6中所述的方法, 其特征在于, 所述非用户专有控制信息 包括: 指示传输用户专有控制信息所使用的资源的信息。 7. The method according to claim 6, wherein the non-user-specific control information comprises: information indicating a resource used to transmit user-specific control information.
8. 根据权利要求 7所述的方法, 其特征在于, 所述非用户专有控制信息还 包括: 用于指示除所述频率重用因子最小的频率重用区域外的其它频率 重用区域上是否传输非用户专有控制信息和 /或用户专有控制信息的标 识。 The method according to claim 7, wherein the non-user-specific control information further comprises: indicating whether to transmit non-transmissions on other frequency reuse areas except the frequency reuse area having the smallest frequency reuse factor Identification of user-specific control information and/or user-specific control information.
9. 根据权利要求 8所述的方法, 其特征在于, 所述方法还包括: The method according to claim 8, wherein the method further comprises:
所述基站通过广播信道通知终端传输所述非用户专有控制信息所 釆用的资源。  The base station notifies the terminal to transmit the resources used by the non-user-specific control information through the broadcast channel.
10. 根据权利要求 6所述的方法, 其特征在于, 所述用户专用控制信息包括 以下至少之一: 资源分配信息、 功率控制信息、 混合自动重传请求反馈 信息。 The method according to claim 6, wherein the user-specific control information comprises at least one of the following: resource allocation information, power control information, and hybrid automatic repeat request feedback information.
11. 根据权利要求 1所述的方法, 其特征在于, 所述基站通过以下方式传输 所述控制信息: 广播、 组播、 或单播。 The method according to claim 1, wherein the base station transmits the control information by: broadcasting, multicasting, or unicast.
12. 根据权利要求 1至 11中任一项所述的方法, 其特征在于, 所述时间区域 包括一个或多个子帧。 The method according to any one of claims 1 to 11, wherein the time zone comprises one or more subframes.
13. —种单播业务控制信道区域信息的传输方法, 其中, 传输单播业务控制 信道区域信息的时间区域的全部或部分频率资源包括多个频率重用区 域, 且每个频率重用区域包括一个或多个频率集合, 其特征在于, 所述 方法包括: 13. A method for transmitting unicast service control channel region information, wherein all or part of frequency resources of a time region in which unicast traffic control channel region information is transmitted includes a plurality of frequency reuse regions, and each frequency reuse region includes one or a plurality of frequency sets, wherein the method comprises:
基站在所述时间区域的满足预设条件的频率集合下传输所述单播 业务控制信道区域信息, 其中, 所述预设条件包括: 下行千扰级别最小 或下行覆盖范围最大。  The eNB transmits the unicast service control channel area information in a frequency set that meets a preset condition in the time zone, where the preset condition includes: a downlink interference level is the smallest or a downlink coverage is the largest.
14. 根据权利要求 13所述的方法, 其特征在于, 所述单播业务控制信道区域 信息包括: 非用户专有控制信息和 /或用户专有控制信息。 The method according to claim 13, wherein the unicast service control channel area information comprises: non-user-specific control information and/or user-specific control information.
15. 根据权利要求 13或 14所述的方法, 其特征在于, 所述方法还包括: 所述基站通过广播信道通知终端传输所述单播业务控制信道区域 信息所釆用的资源。 The method according to claim 13 or 14, wherein the method further comprises: the base station notifying, by using a broadcast channel, a resource used by the terminal to transmit the unicast service control channel region information.
16. 根据权利要求 13或 14所述的方法, 其特征在于, 传输所述单播业务控 制信道区域信息包括: The method according to claim 13 or 14, wherein the transmitting the unicast service control channel area information comprises:
在满足所述预设条件的所述频率集合的部分或全部分布式逻辑资 源上传输所述单播业务控制信道区域信息。  Transmitting the unicast service control channel region information on part or all of the distributed logic resources of the frequency set satisfying the preset condition.
17. 根据权利要求 13或 14所述的方法, 其特征在于, 所述基站通过以下方 式传输所述单播业务控制信道区域信息: 广播、 组播、 或单播。 The method according to claim 13 or 14, wherein the base station transmits the unicast service control channel area information by: broadcasting, multicasting, or unicast.
18. 根据权利要求 13或 14所述的方法, 其特征在于, 所述时间区域包括一 个或多个子帧。 The method according to claim 13 or 14, wherein the time zone comprises one or more subframes.
19. 一种控制信息的传输方法, 其中, 传输控制信息的时间区域的全部或部 分频率资源包括: 多个频率重用区域, 其中, 所述多个频率重用区域中 的各频率重用区域的频率重用因子不同, 且每个频率重用区域包括一个 或多个频率集合, 其特征在于, 所述方法包括: A method for transmitting control information, wherein all or part of a frequency resource of a time zone in which control information is transmitted includes: a plurality of frequency reuse zones, wherein frequency reuse of each frequency reuse zone in the plurality of frequency reuse zones The factors are different, and each frequency reuse region includes one or more frequency sets, and the method includes:
基站在超帧头中指示在所述时间区域中发送所述控制信息的频率 重用区域或频率集合。  The base station indicates, in the superframe header, a frequency reuse region or a frequency set in which the control information is transmitted in the time zone.
20. 居权利要求 19所述的方法, 其特征在于, 当所述超帧头指示所述控制 信息在所述频率重用因子最小的频率重用区域上发送时: 20. The method of claim 19, wherein when the superframe header indicates that the control information is transmitted on a frequency reuse region where the frequency reuse factor is the smallest:
在所述频率重用因子最小的频率重用区域的部分或全部分布式逻 辑资源上传输所述控制信息。  The control information is transmitted on some or all of the distributed logical resources of the frequency reuse region where the frequency reuse factor is the smallest.
21. 根据权利要求 20所述的方法, 其特征在于, 在所述频率重用因子最小的 频率重用区域传输所述控制信息包括: The method according to claim 20, wherein the transmitting the control information in the frequency reuse area with the smallest frequency reuse factor comprises:
在所述频率重用因子最小的频率重用区域的部分或全部频率集合 上传输所述控制信息; 或者  Transmitting the control information on a portion or all of the frequency set of the frequency reuse region having the smallest frequency reuse factor; or
在所述频率重用因子最小的频率重用区域中功率级别最高的频率 集合上传输所述控制信息。  The control information is transmitted on a frequency set having the highest power level in the frequency reuse region where the frequency reuse factor is the smallest.
22. 居权利要求 21所述的方法, 其特征在于, 在所述功率级别最高的频率 集合上传输所述控制信息包括: 22. The method of claim 21, wherein transmitting the control information on the highest frequency set of power levels comprises:
在所述功率级别最高的频率集合的部分或全部分布式逻辑资源上 传输所述控制信息。 The control information is transmitted on some or all of the distributed logical resources of the set of frequencies with the highest power level.
23. 根据权利要求 22所述的方法, 其特征在于, 所述控制信息为非用户专有 控制信息, 包括: 指示除所述功率级别最高的频率集合外的其它频率集 合上是否传输用户专有控制信息的标识。 The method according to claim 22, wherein the control information is non-user-specific control information, including: indicating whether to transmit user-specificity on other frequency sets except the frequency set with the highest power level The identity of the control information.
24. 根据权利要求 19所述的方法, 其特征在于, 所述控制信息包括: 非用户 专有控制信息和 /或用户专有控制信息。 24. The method according to claim 19, wherein the control information comprises: non-user-specific control information and/or user-specific control information.
25. 根据权利要求 24中所述的方法, 其特征在于, 所述非用户专有控制信息 包括: 指示传输用户专有控制信息的频率集合。 25. The method of claim 24, wherein the non-user-specific control information comprises: a set of frequencies indicating transmission of user-specific control information.
26. 根据权利要求 24所述的方法, 其特征在于, 所述用户专用控制信息包括 以下至少之一: 资源分配信息、 功率控制信息、 混合自动重传请求反馈 信息、 组分配信息、 永久资源分配信息。 The method according to claim 24, wherein the user-specific control information comprises at least one of the following: resource allocation information, power control information, hybrid automatic repeat request feedback information, group allocation information, and permanent resource allocation. information.
27. 根据权利要求 19至 26中任一项所述的方法, 其特征在于, 所述时间区 域包括一个或多个子帧。 The method according to any one of claims 19 to 26, wherein the time zone comprises one or more subframes.
28. 一种控制信息的传输方法, 其中, 传输控制信息的时间区域的全部或部 分频率资源包括: 一个频率重用区域, 且所述频率重用区域包括多个频 率集合, 其特征在于, 所述方法包括: A method for transmitting control information, wherein all or part of a frequency resource of a time zone in which control information is transmitted includes: a frequency reuse zone, and the frequency reuse zone includes a plurality of frequency sets, wherein the method Includes:
基站在所述频率重用区域中功率级别最高的频率集合上发送所述 控制信息。  The base station transmits the control information on a frequency set having the highest power level in the frequency reuse region.
29. 根据权利要求 28所述的方法, 其特征在于, 在所述功率级别最高的频率 集合上传输所述控制信息包括: 29. The method of claim 28, wherein transmitting the control information on the set of frequencies with the highest power level comprises:
在所述功率级别最高的频率集合的部分或全部分布式逻辑资源上 传输所述控制信息。  The control information is transmitted on some or all of the distributed logical resources of the set of frequencies with the highest power level.
30. 根据权利要求 28所述的方法, 其特征在于, 所述控制信息为非用户专有 控制信息, 包括: 指示除所述功率级别最高的频率集合外的其它频率集 合上是否传输用户专有控制信息的标识。 The method according to claim 28, wherein the control information is non-user-specific control information, including: indicating whether to transmit user-specificity on other frequency sets except the frequency set with the highest power level The identity of the control information.
31. 根据权利要求 28所述的方法, 其特征在于, 所述控制信息包括: 非用户 专有控制信息和 /或用户专有控制信息。 The method according to claim 28, wherein the control information comprises: non-user-specific control information and/or user-specific control information.
32. 根据权利要求 28中所述的方法, 其特征在于, 所述非用户专有控制信息 包括: 指示传输用户专有控制信息的频率集合。 32. The method according to claim 28, wherein the non-user-specific control information comprises: a frequency set indicating transmission of user-specific control information.
33. 根据权利要求 28至 32中任一项所述的方法, 其特征在于, 所述时间区 域包括一个或多个子帧。 The method according to any one of claims 28 to 32, wherein the time zone comprises one or more subframes.
34. —种控制信息的传输方法, 其中, 传输控制信息的时间区域的全部或部 分频率资源包括: 一个或多个频率重用区域, 且每个频率重用区域包括 一个或多个频率集合, 其特征在于, 所述方法包括: 34. A method for transmitting control information, wherein all or part of a frequency resource of a time zone in which control information is transmitted includes: one or more frequency reuse regions, and each frequency reuse region includes one or more frequency sets, characteristics thereof The method includes:
基站在不同频率集合上发送所述控制信息时釆用相同或不同的编 码参数。  The base station uses the same or different coding parameters when transmitting the control information on different sets of frequencies.
35. 居权利要求 34所述的方法, 其特征在于: 所述基站通过超帧头指示发 送所述控制信息的频率集合或频率重用区域。 35. The method of claim 34, wherein: the base station instructs to transmit a frequency set or a frequency reuse area of the control information through a superframe header.
36. 居权利要求 34所述的方法, 其特征在于, 所述不同频率集合上发送所 述控制信息时釆用的所述编码参数是标准缺省配置的。 36. The method of claim 34, wherein the encoding parameters used when transmitting the control information on the different frequency sets are standard default configurations.
37. 居权利要求 34所述的方法,其特征在于所述基站通过超帧头指示发送 所述控制信息的编码参数。 37. The method of claim 34, wherein the base station instructs transmission of the coding parameters of the control information by a superframe header.
38. 居权利要求 34所述的方法, 其特征在于, 所述控制信息包括: 非用户 专有控制信息和 /或用户专有控制信息。 38. The method of claim 34, wherein the control information comprises: non-user-specific control information and/or user-specific control information.
39. 居权利要求 34所述的方法, 其特征在于, 所述编码参数包括但不限于 以下至少之一: 调制编码方式, 重复次数, 编码码率, 多天线编码 /预编 码参数, 占用的资源数。 根据权利要求 34至 39中任一项所述的方法, 其特征在于, 所述时间区 域包括一个或多个子帧。 39. The method according to claim 34, wherein the coding parameters include but are not limited to at least one of: modulation coding mode, repetition number, coding rate, multi-antenna coding/precoding parameters, occupied resources number. The method according to any one of claims 34 to 39, wherein the time zone comprises one or more subframes.
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