CN101026386A - Base station, mobile terminal and method for comprehensive using paired and nonpaired spectrum - Google Patents
Base station, mobile terminal and method for comprehensive using paired and nonpaired spectrumDownload PDFInfo
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Abstract
Translated fromChinese
Description
Technical field
The present invention relates to wireless communication field, relate in particular to comprehensive use in pairs and base station, portable terminal and the method for non-paired frequency spectrum.
Background technology
Duplex mode is one of feature of distinguishing legacy wireless communication system, also is the essential characteristic that the needs in the system are considered.The duplex mode that many performance and systems adopted of communication system is closely related, and for example: 1) system is to the flexibility of frequency spectrum use; 2) terminal and base station complexity; 3) the use ability of channel information; 4) networking capability; 5) interworking between network ability; 6) to the tenability of moving velocity of terminal.
The duplex mode that the existing communication system is adopted mainly contains three kinds: 1) pure TDD (time division duplex) mode, as the PHS system; 2) pure FDD (Frequency Division Duplexing (FDD)) mode is as the WCDMA system; 3) half-duplex FDD mode is as gsm system.
The major advantage of pure TDD mode is: 1) need not paired frequency spectrum, be convenient to frequency planning; 2) the Receiver And Transmitter channels designs is simple; 3) be convenient to utilize property of channel reciprocity may, make the simplicity of design of smart antenna.The major defect of pure TDD mode is: when 1) overlay area was excessive, the frequency spectrum service efficiency was lower than the FDD mode; 2) support the high-speed mobile aspect not as the FDD mode.
The major advantage of pure FDD mode is: 1) be fit to support high-speed mobile; 2) be fit to big overlay area.The major defect of pure FDD mode is: 1) need paired frequency spectrum, bring the difficulty in the frequency spectrum planning; 2) use of property of channel reciprocity may has difficulties, and makes the design difficulty of smart antenna strengthen; 3) the up-downgoing frequency spectrum uses underaction when supporting non-symmetrical service.
Half-duplex FDD and pure FDD compare, and its advantage is: 1) terminal transmitting-receiving time-sharing work causes terminal passageway simple in structure, and cost is lower; 2) time-multiplexed introducing causes measuring, the realization of function such as switching is easy.
At present, in the research in this field, various duplex modes have been carried out comprehensive assessment, and " arrangement of duplex mode in the following broadband wireless interface (Duplex arrangements for future broadband radio interfaces.IST-2003-507581WINNER D2.5 v1.0) " carried out comprehensive assessment to 7 kinds of possible duplex modes as the report in the IST of European Union (informationized society technology) project: 1) pure FDD; 2) pure TDD; 3) half-duplex FDD (GSM); 4) introduce TDD in the FDD uplink spectrum; 5) introduce TDD in the FDD downstream spectrum; 6) FDD of up-downgoing switching; 7) paired TDD.In addition, this report is also discussed CDD.The purpose of these researchs is to seek new duplex mode, perhaps seeks the mode that existing TDD, FDD duplex mode are effectively made up, and reaches the advantage of effectively utilizing TDD and FDD, avoids the purpose of the shortcoming of TDD and FDD as far as possible.
Though several mixing duplex (or cooperative dual duplex) modes of enumerating among the IST WINNER project research report IST-2003-507581 WINNER D2.5 v1.0 have all been improved the deficiency of pure TDD and pure FDD to a certain extent, but, the analysis that the situation that these mixing duplex modes all are based on a pair of FDD frequency spectrum or two TDD frequency spectrums is carried out, there is not to analyze the situation that FDD frequency spectrum (or frequency spectrum) in pairs and TDD frequency spectrum (or non-paired frequency spectrum) are comprehensively used, the a pair of FDD frequency spectrum that particularly has very strong practicality adds the situation of one section TDD frequency spectrum, and IST WINNER project research report IST-2003-507581 WINNER D2.5 v1.0 does not analyze.
In the prior art, discussion for flexible use TDD, FDD duplex mode, mainly concentrate on following several respects, from improving the frequency spectrum service efficiency, strengthening professional providing capability, reducing by three aspects of integrated cost of base station and terminal takes all factors into consideration, the various schemes of prior art also have corresponding separately shortcoming, provide several prior art schemes below:
1) introduce the TDD mode in the downstream spectrum of FDD, the frequency spectrum that provides uses the FDD/TDD resource regulating method in division, terminal structure, the FDD downstream spectrum.The characteristics of its terminal structure are two transmission channels and a receive path; The characteristics of the FDD/TDD resource regulating method in its FDD downstream spectrum are the time slot of the nearest terminal from the base station is arranged in the both sides of up-downgoing translation and protection time slot; the terminal of arranging to both sides from the protection time slot is more and more far away from the base station; when terminal after the distance of base station is greater than certain value, just allow this terminal works in the FDD mode.
Its shortcoming mainly is: a) only consider a pair of FDD frequency spectrum on base station and terminal structure, do not have to consider more comprehensive frequency spectrum operating position, add the situation of one section TDD frequency spectrum as the FDD frequency spectrum; B) transmission channel of terminal has two, and receive path has only one, and this is unfavorable for terminal support high-speed downloads business and radio environment measurements; In addition, from scheduling of resource, being arranged into position near the time slot transfer point, far away being arranged near the terminal of base station from time slot transfer point position far away from the base station, farther terminal is arranged in fdd mode, and its shortcoming of such processing is the resource optimization that is unfavorable for high speed mobile terminal.
2) under the situation that the TDD system is covered by the FDD system, use remainder in the uplink spectrum of FDD as the data feedback channel of terminal FDD working method, use the down going channel of TDD frequency spectrum as terminal FDD working method, thereby, the FDD duplex mode of formation one " virtual ".This kind scheme is used the main benefit that the remainder in the uplink spectrum of FDD obtains and is: a) made full use of the remainder in the uplink spectrum of FDD; B) reduced of the interference of TDD terminal to the FDD base station.Wherein, the TDD base station is shaped by downlink wave beam and has alleviated interference to the FDD base station, and the TDD base station is shaped by uplink beam and has alleviated the interference of FDD terminal to the TDD base station.
This shortcoming of using the scheme of the up residual spectrum of FDD is: from the angle of comprehensive use TDD, FDD frequency spectrum TDD and FDD system are not carried out comprehensive Design, just provided and how to have allowed a TDD system that lays separately go to use the method that remainder in another FDD uplink spectrum of laying separately assigns to constitute virtual FDD link, there is TDD system and the FDD system difficulty on coordinating in this scheme in realization, and, can only be to use around the TDD base station in each FDD base station that part of frequency spectrum of quantity minimum in the residual spectrum; Its shortcoming that reduces the method for the interference between TDD terminal and base station and FDD terminal and the base station is: need the coordination complicated between TDD system and the FDD system and the careful network planning, in fact, TDD and FDD system only are only more serious near 1920MHz, and this interference is can be by the comprehensive Design of TDD and FDD system and effectively collaborative the inhibition.
3) filter of traditional transceiver is moved on to before the channel switch, by radio-frequency (RF) switch combination flexibly, the realization system works on different frequency range with different duplex modes (TDD or FDD).
This scheme just is described filter in the transceiver that can support TDD, FDD mixing duplex and the structural relation between the switch, though its structure can be supported TDD and FDD duplex neatly, but and target of the present invention and inconsistent, as, this structure can't be used a pair of FDD frequency spectrum and a TDD frequency spectrum simultaneously.
In a word, prior art can't be accomplished: simultaneously comprehensively use in pairs and non-paired frequency spectrum, improve the frequency spectrum service efficiency, strengthen professional providing capability, reduce the integrated cost of base station and terminal.
Summary of the invention
Technical problem to be solved by this invention is, provide a kind of comprehensive use in pairs and base station, portable terminal and the method for non-paired frequency spectrum, can comprehensively use in pairs and the base station and the terminal structure of non-paired frequency spectrum by adopting, to reach and improve the frequency spectrum service efficiency, strengthen professional providing capability, reduce the purpose of the integrated cost of base station and terminal.
The invention provides a kind of comprehensive use in pairs and the base station of non-paired frequency spectrum, comprising:
Multiband aerial comprises the frequency range that is used for paired frequency spectrum and is used for non-paired frequency spectrum;
First transmission channel is operated on the non-paired frequency spectrum;
First receive path is operated on the non-paired frequency spectrum;
Second receive path is operated on the uplink spectrum of paired frequency spectrum;
Second transmission channel is operated on the downstream spectrum of paired frequency spectrum;
Radio-frequency (RF) switch is used for switching between described first transmission channel and first receive path, finishes time division duplex;
The multiband filter links to each other with described multiband aerial, radio-frequency (RF) switch, second receive path, second transmission channel, is used for carrying out filtering in the frequency range of correspondence for receiving with the signal of launching;
Baseband processing module is used in emission, links to each other with described first, second transmission channel, is used to provide described first, second transmission channel needed Base-Band Processing;
Receive and use baseband processing module, link to each other, be used to provide described first, second receive path needed Base-Band Processing with described first, second receive path.
Described multiband aerial comprises antenna that is used for paired frequency spectrum and the antenna that is used for non-paired frequency spectrum.Described non-paired frequency spectrum comprises the time division duplex frequency spectrum, or the idle frequency spectrum of using from other frequency ranges.Described paired frequency spectrum is the Frequency Division Duplexing (FDD) frequency spectrum.Described multiband filter comprises:
First filter links to each other with described radio-frequency (RF) switch, is operated on the non-paired frequency spectrum;
Second filter links to each other with described second receive path, is operated on the uplink spectrum of paired frequency spectrum;
The 3rd filter links to each other with described second transmission channel, is operated on the downstream spectrum of paired frequency spectrum.
The present invention also provides a kind of comprehensive use in pairs and the base station of non-paired frequency spectrum, comprising:
Multiband aerial comprises the frequency range that is used for paired frequency spectrum and is used for non-paired frequency spectrum;
First transmission channel is the tunable radio frequency passage;
First receive path is operated on the non-paired frequency spectrum;
Second receive path is operated on the uplink spectrum of paired frequency spectrum;
Second transmission channel is operated on the downstream spectrum of paired frequency spectrum;
First radio-frequency (RF) switch is used for switching between described first transmission channel and first receive path, finishes time division duplex;
Second radio-frequency (RF) switch is used for switching between described first transmission channel and second receive path, when using non-paired frequency spectrum received signal, switches gating first transmission channel, when using non-paired spectral emission signal, switches gating second receive path;
Wherein, described first transmission channel dynamically switches frequency spectrums of operation between non-paired frequency spectrum and paired frequency spectrum uplink spectrum according to by the state of described first, second radio-frequency (RF) switch gating;
The multiband filter links to each other with described multiband aerial, first radio-frequency (RF) switch, second radio-frequency (RF) switch, second transmission channel, is used for carrying out filtering in the frequency range of correspondence for receiving with the signal of launching;
Baseband processing module is used in emission, links to each other with described first, second transmission channel, is used to provide described first, second transmission channel needed Base-Band Processing;
Receive and use baseband processing module, link to each other, be used to provide described first, second receive path needed Base-Band Processing with described first, second receive path.
Wherein, described base station, when described first transmission channel by the first radio-frequency (RF) switch gating, and during not by the second radio-frequency (RF) switch gating, described first transmission channel is adjusted to and is operated on the non-paired frequency spectrum; When described first transmission channel not by the first radio-frequency (RF) switch gating, and during by the second radio-frequency (RF) switch gating, described first transmission channel is adjusted on the uplink spectrum that is operated in paired frequency spectrum.
Described multiband aerial comprises antenna that is used for paired frequency spectrum and the antenna that is used for non-paired frequency spectrum.Described non-paired frequency spectrum comprises the time division duplex frequency spectrum, or the idle frequency spectrum of using from other frequency ranges.Described paired frequency spectrum is the Frequency Division Duplexing (FDD) frequency spectrum.Described multiband filter comprises:
First filter links to each other with described first radio-frequency (RF) switch, is operated on the non-paired frequency spectrum;
Second filter links to each other with described second radio-frequency (RF) switch, is operated on the uplink spectrum of paired frequency spectrum;
The 3rd filter links to each other with described second transmission channel, is operated on the downstream spectrum of paired frequency spectrum.
The present invention also provides a kind of comprehensive use in pairs and the portable terminal of non-paired frequency spectrum, comprising:
Multiband aerial comprises the frequency range that is used for paired frequency spectrum and is used for non-paired frequency spectrum;
Transmission channel is the tunable radio frequency passage;
First receive path is the tunable radio frequency passage;
Second receive path is operated on the downstream spectrum of paired frequency spectrum;
First radio-frequency (RF) switch is used for switching between described transmission channel, sky, first receive path;
Second radio-frequency (RF) switch is used for switching between described transmission channel, sky, first receive path;
Wherein, described transmission channel, first receive path dynamically switch frequency spectrums of operation between non-paired frequency spectrum and paired frequency spectrum uplink spectrum according to the state that is switched gating by described first, second radio-frequency (RF) switch;
The multiband filter links to each other with described multiband aerial, first radio-frequency (RF) switch, second radio-frequency (RF) switch, second receive path, is used for carrying out filtering in the frequency range of correspondence for receiving with the signal of launching;
Baseband processing module is used in emission, links to each other with described transmission channel, is used to provide transmission channel needed Base-Band Processing;
Receive and use baseband processing module, link to each other, be used to provide described first, second receive path needed Base-Band Processing with described first, second receive path.
When the described second radio-frequency (RF) switch gating transmission channel, during the first radio-frequency (RF) switch gating, first receive path, described transmission channel is adjusted to the uplink spectrum of paired frequency spectrum, and first receive path is adjusted on the non-paired frequency spectrum; Wherein, described second receive path and transmission channel constitute the Frequency Division Duplexing (FDD) mode of operation; Described first receive path is used for Data Receiving or the monitoring on the non-paired frequency spectrum.
When the described second radio-frequency (RF) switch gating, first receive path, during the first radio-frequency (RF) switch gating transmission channel, described transmission channel is adjusted on the non-paired frequency spectrum, and first receive path is adjusted to the uplink spectrum of paired frequency spectrum; Wherein, described second receive path and transmission channel constitute the Frequency Division Duplexing (FDD) mode of operation, and use the uplink spectrum of non-paired frequency spectrum as Frequency Division Duplexing (FDD); Described first receive path is used for Data Receiving or the monitoring on the uplink spectrum of paired frequency spectrum.
When the described second radio-frequency (RF) switch gating, first receive path, during the first radio-frequency (RF) switch gating transmission channel, described transmission channel is adjusted on the non-paired frequency spectrum, and first receive path is adjusted to the uplink spectrum of paired frequency spectrum; Wherein, first receive path and transmission channel constitute the Frequency Division Duplexing (FDD) mode of operation; Second receive path uses the downstream spectrum of paired frequency spectrum to carry out Data Receiving or monitoring.
When the described second radio-frequency (RF) switch gating transmission channel, during the first radio-frequency (RF) switch gating, first receive path, described transmission channel is adjusted to the uplink spectrum of paired frequency spectrum, and first receive path is adjusted to non-paired frequency spectrum; Wherein, first receive path and transmission channel constitute the Frequency Division Duplexing (FDD) mode of operation; Second receive path uses the downstream spectrum of paired frequency spectrum to carry out Data Receiving or monitoring.
When described second radio-frequency (RF) switch places sky, when first radio-frequency (RF) switch was switched between the transmission channel and first receive path, the described transmission channel and first receive path were all adjusted on the non-paired frequency spectrum, used non-paired frequency spectrum to constitute the time division duplex mode of operation; Wherein, second receive path uses the downstream spectrum of paired frequency spectrum to carry out Data Receiving or monitoring.
When described first radio-frequency (RF) switch places sky, when second radio-frequency (RF) switch is switched between the transmission channel and first receive path, the described transmission channel and first receive path are all adjusted to the uplink spectrum of paired frequency spectrum, use the uplink spectrum of paired frequency spectrum to constitute the time division duplex mode of operation; Wherein, second receive path uses the downstream spectrum of paired frequency spectrum to carry out Data Receiving or monitoring.
Described multiband aerial comprises antenna that is used for paired frequency spectrum and the antenna that is used for non-paired frequency spectrum.
The present invention also provides a kind of and comprehensively uses in pairs and the method for non-paired frequency spectrum in wireless communication system, comprises the steps:
The base station uses non-paired frequency spectrum to be used for its first transmission channel and first receive path;
The base station uses the downstream spectrum of paired frequency spectrum to be used for its second transmission channel, and uses the uplink spectrum of paired frequency spectrum to be used for its second receive path;
Receive in the emission baseband processing resource in described each transmission channel sharing base, described each receive path sharing base and use baseband processing resource.
Described method further comprises:
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path, and uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses non-paired frequency spectrum to be used for its first receive path.
Described method further comprises:
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path, and uses non-paired frequency spectrum to be used for its transmission channel, as the uplink spectrum of Frequency Division Duplexing (FDD), constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its first receive path.
Described method further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its first receive path, and uses non-paired frequency spectrum to be used for its transmission channel, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
Described method further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel, and uses non-paired frequency spectrum to be used for its first receive path, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
Described method further comprises:
Portable terminal uses non-paired frequency spectrum to be used for its transmission channel and first receive path, constitutes the time division duplex mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
Described method further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel and first receive path, constitutes the time division duplex mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
The present invention also provides a kind of and comprehensively uses in pairs and the method for non-paired frequency spectrum in wireless communication system, comprises the steps:
The base station uses non-paired frequency spectrum to be used for its first receive path;
The base station uses the downstream spectrum of paired frequency spectrum to be used for its second transmission channel, and uses the uplink spectrum of paired frequency spectrum to be used for its second receive path;
When non-paired frequency spectrum received signal was used in the base station, this base station used the uplink spectrum of paired frequency spectrum to be used for its first transmission channel;
When non-paired spectral emission signal was used in the base station, this base station used non-paired frequency spectrum to be used for its first transmission channel;
Receive in the emission baseband processing resource in described each transmission channel sharing base, described each receive path sharing base and use baseband processing resource.
Described method further comprises:
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path, and uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses non-paired frequency spectrum to be used for its first receive path.
Described method further comprises:
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path, and uses non-paired frequency spectrum to be used for its transmission channel, as the uplink spectrum of Frequency Division Duplexing (FDD), constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its first receive path.
Described method further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its first receive path, and uses non-paired frequency spectrum to be used for its transmission channel, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
Described method further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel, and uses non-paired frequency spectrum to be used for its first receive path, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
Described method further comprises:
Portable terminal uses non-paired frequency spectrum to be used for its transmission channel and first receive path, constitutes the time division duplex mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
Described method further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel and first receive path, constitutes the time division duplex mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
The present invention also provides a kind of method of carrying out allocation of radio resources in pairs with non-paired frequency spectrum that fully utilizes, and comprises the steps:
(1) portable terminal reports its duplex mode information to network side, comprises dual-mode and band information that this terminal is supported;
(2) portable terminal reports its motion state and service requesting information to network side;
(3) network side is determined this portable terminal support time division duplex and Frequency Division Duplexing (FDD), and is determined corresponding frequency range according to the described duplex mode information that receives;
(4) network side judges according to the motion state information of this portable terminal that receives whether this portable terminal is in high-speed moving state, if be the traffic assignments resource of this terminal request in paired frequency spectrum then; If not, then in non-paired frequency spectrum the traffic assignments resource of this terminal request.
Described step (4) further comprises:
If in non-paired frequency spectrum, can't find required service resources, the traffic assignments resource that the non-paired and paired frequency spectrum of then comprehensive use is this terminal request.
Described step (4) further comprises:
If still can't find required service resources in non-paired and paired frequency spectrum, then refusal is this Terminal Service.
Described step (3) further comprises:
If network side, determines this portable terminal according to the duplex mode information that receives and can not comprehensively support time division duplex and Frequency Division Duplexing (FDD), in dual-mode that this terminal is supported and frequency range, be its Resources allocation then.
The present invention has realized the comprehensive use to TDD frequency spectrum and FDD frequency spectrum, simultaneously, eliminated present TDD base station, terminal and FDD base station, terminal independently exist the network that causes lay complicated, terminal is various informative and TDD system and FDD system intercommunication problem, eliminate the boundary of TDD terminal and FDD terminal, significantly reduced the integrated cost of terminal and system.
Description of drawings
Fig. 1 be a kind of comprehensive use in pairs and the system configuration of non-paired frequency spectrum;
Fig. 2 is the architecture of base station that a kind of TDD and FDD share baseband processing resource;
Fig. 3 is the architecture of base station that another kind of TDD and FDD share transmission channel and baseband processing resource;
Fig. 4 be a kind of comprehensive use in pairs and the terminal structure of non-paired frequency spectrum;
Fig. 5 is a kind of the comprehensive utilization in pairs and the RRM flow chart of non-paired frequency spectrum.
Embodiment
Describe the present invention below in conjunction with preferred embodiment of the present invention and accompanying drawing.
As shown in Figure 1, comprehensive use of the present invention is made up ofseveral base stations 101 and several terminal 106 two parts in pairs and the system of non-paired frequency spectrum.
As shown in Figure 2, a kind ofbase station 101 of the present invention comprises: multiband aerial (comprising antenna sets) 201, multiband filter (comprising bank of filters) 202,203,204, radio-frequency (RF) switch (comprising switches set) 205, transmission channel (comprising channel group) 206,209, receive path (comprising channel group) 207,208, emission receives withbaseband processing module 211 withbaseband processing module 210.
Multiband aerial 201 is the multiband aerial groups that are made of a plurality of antennas.In the multiband aerial 201, TDD frequency spectrum and FDD frequency spectrum use different antennas, be used for TDD frequency spectrum antenna with the antenna that is used for the FDD frequency spectrum between take usually to isolate, with assurance good isolation degree.
Radio-frequency (RF)switch 205 is used for the switching betweentransmission channel 206 and the receivepath 207, is implemented in the TDD duplex on the non-paired frequency spectrum (as the TDD frequency spectrum) 104.
Emission is used for transmission channel 206,209 needed Base-Band Processing withbaseband processing module 210, and transmission channel 206,209 is shared the resource of emission withbaseband processing module 210.
Receive withbaseband processing module 211, be used for receive path 207,208 needed Base-Band Processing, receive path 207,208 is shared the resource that receives withbaseband processing module 211.
Describedtransmission channel 206 and receivepath 207 are one group of independently passages in smart antenna application, and this moment, radio-frequency (RF)switch 205 was one group of independently switch, comprised the antenna of one group of forming array in the multiband aerial 201.
As shown in Figure 3, another kind ofbase station 101 of the present invention comprises, multiband aerial (comprising antenna sets) 201, multiband filter (comprising bank of filters) 202,203,204, radio-frequency (RF) switch (comprising switches set) 205, transmission channel (comprising channel group) 209, receive path (comprising channel group) 207,208, emission receives withbaseband processing module 211, radio-frequency (RF) switch (comprising switches set) 301 and tunable radio frequency passage (comprising channel group) 302 withbaseband processing module 210.
Radio-frequency (RF)switch 301 is used for the switching of tunableradio frequency passage 302 between FDD uplink spectrum and TDD frequency spectrum, makes shared tunable radio frequency passage (or channel group) 302 between FDD uplink spectrum and the TDD frequency spectrum.
Tunableradio frequency passage 302 is the passages that working frequency range can be controlled.Whenbase station 101 on the TDD frequency spectrum during received signal, tunableradio frequency passage 302 is switched to the FDD uplink spectrum, has disconnected being connected of receivepath 208 and filter 203 this moment, tunableradio frequency passage 302 uses the FDD uplink spectrum toterminal 106 transmission data.A transmission channel dynamically is applied to has saved the base station cost on two sections frequency spectrums, and this can accomplish that just base station does not in the past possess this ability under only comprehensively using the condition of TDD and FDD frequency spectrum in the base station, also is one of target of pursuing of the present invention.
Realize smart antenna in order to make full use of TDD system channel reciprocity property, a kind of scheme of passage preferably is: multiband aerial 201 and receivepath 207 adopt the form of channel group.
As shown in Figure 4,terminal 106 of the present invention, comprise: multiband aerial (comprising antenna sets) 401, filter (comprising bank of filters) 402,403 and 404, radio-frequency (RF) switch 405,406,adjustable transmission channel 407, adjustable receivepath 408 and receivepath 409, emission receives withbaseband processing module 411 withbaseband processing module 410.
Multiband aerial 401 can be the multiband aerial that an antenna constitutes, and also can be the multiband aerial group that a plurality of antennas constitute.
In the bank of filters (402,403 and 404) 402 is operated in non-(as TDD) frequency spectrum in pairs; In 403 uplink spectrum that are operated in the paired frequency spectrum of FDD; In 404 downstream spectrum that are operated in the paired frequency spectrum of FDD.
The diverse location combination of radio-frequency (RF) switch 405,406 in conjunction with the cooperation of adjustable receivepath 408, makes terminal form multiple duplex mode and frequency spectrum occupation mode.
Emission is used foradjustable transmission channel 407 needed Base-Band Processing withbaseband processing module 410;
Receive withbaseband processing module 411, be used for receivepath 409, adjustable receivepath 408 needed Base-Band Processing, receivepath 409 is shared the resource that receives withbaseband processing module 411 with adjustable receivepath 408.
Described radio-frequency (RF) switch 405,406 cooperates the terminal work mode that can realize as follows withadjustable transmission channel 407, adjustable receive path 408:
1) implementation method of 4 kinds of FDD (or half-duplex FDD) pattern on the terminal
First method: switch 406 places position a,adjustable transmission channel 407 is adjusted toFDD uplink spectrum 105,switch 405 is as for position e simultaneously, adjustable receivepath 408 is adjusted toTDD frequency spectrum 104, under this configuration, receivepath 409 constitutes fdd mode (perhaps half-duplex fdd mode) withadjustable transmission channel 407, and adjustable receivepath 408 can be used for Data Receiving or monitoring on theTDD frequency spectrum 104.
Second method: switch 406 places position e,adjustable transmission channel 407 is adjusted toTDD frequency spectrum 104,switch 405 is as for position a simultaneously, adjustable receivepath 408 is adjusted to FDD frequencyspectrum uplink spectrum 105, under this configuration, receivepath 409 constitutes fdd mode (perhaps half-duplex fdd mode) withadjustable transmission channel 407, use the uplink spectrum ofTDD frequency spectrum 104 as FDD, and adjustable receivepath 408 can be used for Data Receiving or monitoring on theFDD uplink spectrum 105.
The third method: switch 406 places position e,adjustable transmission channel 407 is adjusted toTDD frequency spectrum 104,switch 405 is as for position a simultaneously, adjustable receivepath 408 is adjusted to FDD frequencyspectrum uplink spectrum 105,switch 301 in this terminal configuration and thebase station 101 places position a,adjustable transmission channel 302 is adjusted toFDD uplink spectrum 105 and is matched, make the adjustable receivepath 408 of terminal constitute fdd mode (perhaps half-duplex fdd mode), and receivepath 409 use FDDdownstream spectrum 103 to carry out Data Receiving or monitoring withadjustable transmission channel 407.
The 4th kind of method: switch 406 places position a,adjustable transmission channel 407 is adjusted toFDD uplink spectrum 105,switch 405 is as for position e simultaneously, adjustable receivepath 408 is adjusted toTDD frequency spectrum 104,switch 301 in this terminal configuration and thebase station 101 places position b to match, adjustable receivepath 408 constitutes fdd mode (perhaps half-duplex fdd mode) withadjustable transmission channel 407, and receivepath 409 uses FDDdownstream spectrum 103 to carry out Data Receiving or monitoring.
2) implementation method of 2 kinds of tdd modes on the terminal
First method: switch 406 places position b,switch 405 switches between position a and position e, simultaneously,adjustable transmission channel 407 and adjustable receivepath 408 are adjusted toTDD frequency spectrum 104, just formed a kind of terminal of TDD mode of operation of the TDD of use frequency spectrum, and receivepath 409 uses FDDdownstream spectrum 103 to carry out Data Receiving or monitoring;
Second method: switch 405 places position b,switch 406 switches between position a and position e, simultaneously,adjustable transmission channel 407 and adjustable receivepath 408 are adjusted toFDD uplink spectrum 105, just formed a kind of terminal of TDD mode of operation of the FDD ofuse uplink spectrum 105, and receivepath 409 uses FDDdownstream spectrum 103 to carry out Data Receiving or monitoring.
As shown in Figure 5, the present invention also provides a kind of comprehensive use in pairs and the radio resource management method of non-paired frequency spectrum, comprises the steps:
Step 501: terminal reports its duplex mode information to network, and wherein, the terminal duplex mode information comprises duplexing kind of being supported and the frequency range of being supported;
Step 502: terminal reports its motion state to network, comprises positional information etc.;
Step 503: terminal reports its service request to network, comprises the QoS rank of class of service, requirement;
Step 504: network (passing through radio resource managing unit) is according to the duplex mode information of terminal to report in thestep 501, judge whether this terminal is duplexing flexibly terminal, if not, step 509 just entered, if duplexing flexibly terminal then entersstep 505;
Step 505: network (passing through radio resource managing unit) judges according to the motion state information of terminal to report in thestep 502 whether terminal is the terminal that is in the high-speed moving state, if, enterstep 511, if not, step 506 just entered;
Step 506: network (passing through radio resource managing unit) judges whether and can find operable resource in non-paired frequency spectrum the inside, if can find, just enter step 510,, just enterstep 507 if can't find the resource that satisfies the demanding terminal business in non-paired frequency spectrum the inside;
Step 507: network (passing through radio resource managing unit) in pairs with non-to becoming resource comprehensively to judge, if there is the resource that can satisfy the terminal request business, just enter step 508, if can't satisfy the terminal resource needed integrating also with non-paired frequency spectrum resource in pairs, just enterstep 512;
Step 508: provide resource integrating to terminal with non-paired frequency spectrum in pairs;
Step 509: certain duplex mode and frequency spectrum resource the inside in its qualification are its Resources allocation;
Step 510: in non-paired frequency spectrum the inside is the traffic assignments resource of terminal request, and in order to realize better interference suppressioning effect,base station 101 adopts the smart antenna mode to provide professional for terminal;
Step 512: refuse to be Terminal Service.
Embodiment 1:
A kind of base station and terminal of comprehensive use 3G core frequency band.
The structure ofbase station 101 as shown in Figure 2, the structure ofterminal 106 as shown in Figure 4,base station 101 and terminal 106 comprehensive FDD frequency spectrum and the TDD frequency spectrums that use International Telecommunication Union to divide are seen Fig. 1.The FDDDL frequency spectrum 103 thatbase station 101 and terminal 106 are used is that the interior part or all of frequency spectrum of 2110～2170MHz scope is as down going channel; The FDDUL frequency spectrum 105 that usebase station 101 is that the interior part or all of frequency spectrum of 1920～1980MHz scope is as data feedback channel; Thenon-paired frequency spectrum 104 thatbase station 101 and terminal 106 used be part or all of frequency spectrum in 2010～2025MHz scope as the up-downgoing passage, or the part or all of frequency spectrum in 1880～1920MHz scope is as the up-downgoing passage.
Embodiment 2:
The base station and the terminal of a kind of comprehensive use 3G core frequency band and television broadcasting frequency spectrum.
The structure ofbase station 101 as shown in Figure 2, the structure ofterminal 106 as shown in Figure 4,base station 101 and terminal 106 comprehensive FDD frequency spectrum and the television broadcasting frequency spectrums that use International Telecommunication Union to divide are seen Fig. 1.The FDDDL frequency spectrum 103 thatbase station 101 and terminal 106 are used is the part or all of frequency spectrums in 2110～2170MHz scope; The FDDUL frequency spectrum 105 that usebase station 101 is the part or all of frequency spectrums in 1920～1980MHz scope; Thenon-paired frequency spectrum 104 thatbase station 101 and terminal 106 are used is the partial frequency spectrums in 400～800MHz scope.
Embodiment 3:
A kind of base station and terminal of comprehensive use 3G core frequency band.
The structure ofbase station 101 as shown in Figure 2, the structure ofterminal 106 as shown in Figure 4,base station 101 and terminal 106 comprehensive FDD frequency spectrum and the TDD frequency spectrums that use International Telecommunication Union to divide are seen Fig. 1.High end parts in FDDDL frequency spectrum 103 usefulness 2500～2690MHz scope thatbase station 101 and terminal 106 are used is as down going channel;Base station 101 uses FDD UL frequency spectrum (as the lower portion in 2500～2690MHz scope) as data feedback channel, perhaps uses FDD UL frequency spectrum (as the lower portion in 2500～2690MHz scope) as data feedback channel and down going channel;Base station 101 is non-to becoming frequency spectrum (as the mid portion in 2500～2690MHz scope) with thenon-paired frequency spectrum 104 that terminal 106 is used, and this part frequency spectrum is as the uplink and downlink passage.
Thenon-paired frequency spectrum 104 thatbase station 101 and terminal 106 are used also can be the partial frequency spectrum in 400～800MHz scope, is used to support digital TV broadcasting service.
Claims (32)
1, the base station of the paired and non-paired frequency spectrum of a kind of comprehensive use is characterized in that, comprising:
Multiband aerial comprises the frequency range that is used for paired frequency spectrum and is used for non-paired frequency spectrum;
First transmission channel is operated on the non-paired frequency spectrum;
First receive path is operated on the non-paired frequency spectrum;
Second receive path is operated on the uplink spectrum of paired frequency spectrum;
Second transmission channel is operated on the downstream spectrum of paired frequency spectrum;
Radio-frequency (RF) switch is used for switching between described first transmission channel and first receive path, finishes time division duplex;
The multiband filter links to each other with described multiband aerial, radio-frequency (RF) switch, second receive path, second transmission channel, is used for carrying out filtering in the frequency range of correspondence for receiving with the signal of launching;
Baseband processing module is used in emission, links to each other with described first, second transmission channel, is used to provide described first, second transmission channel needed Base-Band Processing;
Receive and use baseband processing module, link to each other, be used to provide described first, second receive path needed Base-Band Processing with described first, second receive path.
2, base station as claimed in claim 1 is characterized in that, described multiband filter comprises:
First filter links to each other with described radio-frequency (RF) switch, is operated on the non-paired frequency spectrum;
Second filter links to each other with described second receive path, is operated on the uplink spectrum of paired frequency spectrum;
The 3rd filter links to each other with described second transmission channel, is operated on the downstream spectrum of paired frequency spectrum.
3, base station as claimed in claim 1 is characterized in that, described non-paired frequency spectrum comprises the time division duplex frequency spectrum, or the idle frequency spectrum of using from other frequency ranges; Described paired frequency spectrum is the Frequency Division Duplexing (FDD) frequency spectrum.
4, the base station of the paired and non-paired frequency spectrum of a kind of comprehensive use is characterized in that, comprising:
Multiband aerial comprises the frequency range that is used for paired frequency spectrum and is used for non-paired frequency spectrum;
First transmission channel is the tunable radio frequency passage;
First receive path is operated on the non-paired frequency spectrum;
Second receive path is operated on the uplink spectrum of paired frequency spectrum;
Second transmission channel is operated on the downstream spectrum of paired frequency spectrum;
First radio-frequency (RF) switch is used for switching between described first transmission channel and first receive path, finishes time division duplex;
Second radio-frequency (RF) switch is used for switching between described first transmission channel and second receive path, when using non-paired frequency spectrum received signal, switches gating first transmission channel, when using non-paired spectral emission signal, switches gating second receive path;
Wherein, described first transmission channel dynamically switches frequency spectrums of operation between non-paired frequency spectrum and paired frequency spectrum uplink spectrum according to by the state of described first, second radio-frequency (RF) switch gating;
The multiband filter links to each other with described multiband aerial, first radio-frequency (RF) switch, second radio-frequency (RF) switch, second transmission channel, is used for carrying out filtering in the frequency range of correspondence for receiving with the signal of launching;
Baseband processing module is used in emission, links to each other with described first, second transmission channel, is used to provide described first, second transmission channel needed Base-Band Processing;
Receive and use baseband processing module, link to each other, be used to provide described first, second receive path needed Base-Band Processing with described first, second receive path.
5, base station as claimed in claim 4 is characterized in that:
When described first transmission channel by the first radio-frequency (RF) switch gating, and during not by the second radio-frequency (RF) switch gating, described first transmission channel is adjusted to and is operated on the non-paired frequency spectrum;
When described first transmission channel not by the first radio-frequency (RF) switch gating, and during by the second radio-frequency (RF) switch gating, described first transmission channel is adjusted on the uplink spectrum that is operated in paired frequency spectrum.
6, base station as claimed in claim 4 is characterized in that, described multiband filter comprises:
First filter links to each other with described first radio-frequency (RF) switch, is operated on the non-paired frequency spectrum;
Second filter links to each other with described second radio-frequency (RF) switch, is operated on the uplink spectrum of paired frequency spectrum;
The 3rd filter links to each other with described second transmission channel, is operated on the downstream spectrum of paired frequency spectrum.
7, base station as claimed in claim 4 is characterized in that, described non-paired frequency spectrum comprises the time division duplex frequency spectrum, or the idle frequency spectrum of using from other frequency ranges; Described paired frequency spectrum is the Frequency Division Duplexing (FDD) frequency spectrum.
8, the portable terminal of the paired and non-paired frequency spectrum of a kind of comprehensive use is characterized in that, comprising:
Multiband aerial comprises the frequency range that is used for paired frequency spectrum and is used for non-paired frequency spectrum;
Transmission channel is the tunable radio frequency passage;
First receive path is the tunable radio frequency passage;
Second receive path is operated on the downstream spectrum of paired frequency spectrum;
First radio-frequency (RF) switch is used for switching between described transmission channel, sky, first receive path;
Second radio-frequency (RF) switch is used for switching between described transmission channel, sky, first receive path;
Wherein, described transmission channel, first receive path dynamically switch frequency spectrums of operation between non-paired frequency spectrum and paired frequency spectrum uplink spectrum according to the state that is switched gating by described first, second radio-frequency (RF) switch;
The multiband filter links to each other with described multiband aerial, first radio-frequency (RF) switch, second radio-frequency (RF) switch, second receive path, is used for carrying out filtering in the frequency range of correspondence for receiving with the signal of launching;
Baseband processing module is used in emission, links to each other with described transmission channel, is used to provide transmission channel needed Base-Band Processing;
Receive and use baseband processing module, link to each other, be used to provide described first, second receive path needed Base-Band Processing with described first, second receive path.
9, portable terminal as claimed in claim 8, it is characterized in that, when the described second radio-frequency (RF) switch gating transmission channel, during the first radio-frequency (RF) switch gating, first receive path, described transmission channel is adjusted to the uplink spectrum of paired frequency spectrum, and first receive path is adjusted on the non-paired frequency spectrum; Wherein, described second receive path and transmission channel constitute the Frequency Division Duplexing (FDD) mode of operation; Described first receive path is used for Data Receiving or the monitoring on the non-paired frequency spectrum.
10, portable terminal as claimed in claim 8, it is characterized in that, when the described second radio-frequency (RF) switch gating, first receive path, during the first radio-frequency (RF) switch gating transmission channel, described transmission channel is adjusted on the non-paired frequency spectrum, and first receive path is adjusted to the uplink spectrum of paired frequency spectrum; Wherein, described second receive path and transmission channel constitute the Frequency Division Duplexing (FDD) mode of operation, and use the uplink spectrum of non-paired frequency spectrum as Frequency Division Duplexing (FDD); Described first receive path is used for Data Receiving or the monitoring on the uplink spectrum of paired frequency spectrum.
11, portable terminal as claimed in claim 8, it is characterized in that, when the described second radio-frequency (RF) switch gating, first receive path, during the first radio-frequency (RF) switch gating transmission channel, described transmission channel is adjusted on the non-paired frequency spectrum, and first receive path is adjusted to the uplink spectrum of paired frequency spectrum; Wherein, first receive path and transmission channel constitute the Frequency Division Duplexing (FDD) mode of operation; Second receive path uses the downstream spectrum of paired frequency spectrum to carry out Data Receiving or monitoring.
12, portable terminal as claimed in claim 8, it is characterized in that, when the described second radio-frequency (RF) switch gating transmission channel, during the first radio-frequency (RF) switch gating, first receive path, described transmission channel is adjusted to the uplink spectrum of paired frequency spectrum, and first receive path is adjusted to non-paired frequency spectrum; Wherein, first receive path and transmission channel constitute the Frequency Division Duplexing (FDD) mode of operation; Second receive path uses the downstream spectrum of paired frequency spectrum to carry out Data Receiving or monitoring.
13, portable terminal as claimed in claim 8, it is characterized in that, when described second radio-frequency (RF) switch places sky, when first radio-frequency (RF) switch is switched between the transmission channel and first receive path, the described transmission channel and first receive path are all adjusted on the non-paired frequency spectrum, use non-paired frequency spectrum to constitute the time division duplex mode of operation; Wherein, second receive path uses the downstream spectrum of paired frequency spectrum to carry out Data Receiving or monitoring.
14, portable terminal as claimed in claim 8, it is characterized in that, when described first radio-frequency (RF) switch places sky, when second radio-frequency (RF) switch is switched between the transmission channel and first receive path, the described transmission channel and first receive path are all adjusted to the uplink spectrum of paired frequency spectrum, use the uplink spectrum of paired frequency spectrum to constitute the time division duplex mode of operation; Wherein, second receive path uses the downstream spectrum of paired frequency spectrum to carry out Data Receiving or monitoring.
15, a kind of method of comprehensively using paired and non-paired frequency spectrum in wireless communication system is characterized in that, comprising:
The base station uses non-paired frequency spectrum to be used for its first transmission channel and first receive path;
The base station uses the downstream spectrum of paired frequency spectrum to be used for its second transmission channel, and uses the uplink spectrum of paired frequency spectrum to be used for its second receive path;
Receive in the emission baseband processing resource in described each transmission channel sharing base, described each receive path sharing base and use baseband processing resource.
16, method as claimed in claim 15 is characterized in that, further comprises:
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path, and uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses non-paired frequency spectrum to be used for its first receive path.
17, method as claimed in claim 15 is characterized in that, further comprises:
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path, and uses non-paired frequency spectrum to be used for its transmission channel, as the uplink spectrum of Frequency Division Duplexing (FDD), constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its first receive path.
18, method as claimed in claim 15 is characterized in that, further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its first receive path, and uses non-paired frequency spectrum to be used for its transmission channel, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
19, method as claimed in claim 15 is characterized in that, further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel, and uses non-paired frequency spectrum to be used for its first receive path, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
20, method as claimed in claim 15 is characterized in that, further comprises:
Portable terminal uses non-paired frequency spectrum to be used for its transmission channel and first receive path, constitutes the time division duplex mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
21, method as claimed in claim 15 is characterized in that, further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel and first receive path, constitutes the time division duplex mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
22, a kind of method of comprehensively using paired and non-paired frequency spectrum in wireless communication system is characterized in that, comprising:
The base station uses non-paired frequency spectrum to be used for its first receive path;
The base station uses the downstream spectrum of paired frequency spectrum to be used for its second transmission channel, and uses the uplink spectrum of paired frequency spectrum to be used for its second receive path;
When non-paired frequency spectrum received signal was used in the base station, this base station used the uplink spectrum of paired frequency spectrum to be used for its first transmission channel;
When non-paired spectral emission signal was used in the base station, this base station used non-paired frequency spectrum to be used for its first transmission channel;
Receive in the emission baseband processing resource in described each transmission channel sharing base, described each receive path sharing base and use baseband processing resource.
23, method as claimed in claim 22 is characterized in that, further comprises:
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path, and uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses non-paired frequency spectrum to be used for its first receive path.
24, method as claimed in claim 22 is characterized in that, further comprises:
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path, and uses non-paired frequency spectrum to be used for its transmission channel, as the uplink spectrum of Frequency Division Duplexing (FDD), constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its first receive path.
25, method as claimed in claim 22 is characterized in that, further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its first receive path, and uses non-paired frequency spectrum to be used for its transmission channel, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
26, method as claimed in claim 22 is characterized in that, further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel, and uses non-paired frequency spectrum to be used for its first receive path, constitutes the Frequency Division Duplexing (FDD) mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
27, method as claimed in claim 22 is characterized in that, further comprises:
Portable terminal uses non-paired frequency spectrum to be used for its transmission channel and first receive path, constitutes the time division duplex mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
28, method as claimed in claim 22 is characterized in that, further comprises:
Portable terminal uses the uplink spectrum of paired frequency spectrum to be used for its transmission channel and first receive path, constitutes the time division duplex mode of operation;
Portable terminal uses the downstream spectrum of paired frequency spectrum to be used for its second receive path.
29, a kind ofly fully utilize the method that paired and non-paired frequency spectrum carries out allocation of radio resources, it is characterized in that, comprise the steps:
(1) portable terminal reports its duplex mode information to network side, comprises dual-mode and band information that this terminal is supported;
(2) portable terminal reports its motion state and service requesting information to network side;
(3) network side is determined this portable terminal support time division duplex and Frequency Division Duplexing (FDD), and is determined corresponding frequency range according to the described duplex mode information that receives;
(4) network side judges according to the motion state information of this portable terminal that receives whether this portable terminal is in high-speed moving state, if be the traffic assignments resource of this terminal request in paired frequency spectrum then; If not, then in non-paired frequency spectrum the traffic assignments resource of this terminal request.
30, method as claimed in claim 29 is characterized in that, described step (4) further comprises:
If in non-paired frequency spectrum, can't find required service resources, the traffic assignments resource that the non-paired and paired frequency spectrum of then comprehensive use is this terminal request.
31, method as claimed in claim 30 is characterized in that, described step (4) further comprises:
If still can't find required service resources in non-paired and paired frequency spectrum, then refusal is this Terminal Service.
32, method as claimed in claim 29 is characterized in that, described step (3) further comprises:
If network side, determines this portable terminal according to the duplex mode information that receives and can not comprehensively support time division duplex and Frequency Division Duplexing (FDD), in dual-mode that this terminal is supported and frequency range, be its Resources allocation then.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN200610003173ACN100589332C (en) | 2006-02-22 | 2006-02-22 | Base station, mobile terminal and method for combined use of paired and unpaired spectrum |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN200610003173ACN100589332C (en) | 2006-02-22 | 2006-02-22 | Base station, mobile terminal and method for combined use of paired and unpaired spectrum |
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| Publication Number | Publication Date |
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| CN101026386Atrue CN101026386A (en) | 2007-08-29 |
| CN100589332C CN100589332C (en) | 2010-02-10 |
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| Application Number | Title | Priority Date | Filing Date |
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| CN200610003173AExpired - Fee RelatedCN100589332C (en) | 2006-02-22 | 2006-02-22 | Base station, mobile terminal and method for combined use of paired and unpaired spectrum |
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| CN (1) | CN100589332C (en) |
Cited By (26)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN101971511A (en)* | 2008-01-10 | 2011-02-09 | 埃普科斯股份有限公司 | Front-end circuit |
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| CN104469860A (en)* | 2013-09-24 | 2015-03-25 | 联想(北京)有限公司 | Resource distributing method and device |
| CN105099631A (en)* | 2014-04-17 | 2015-11-25 | 北京三星通信技术研究有限公司 | Method and device for processing flexible duplex |
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- 2006
- 2006-02-22CNCN200610003173Apatent/CN100589332C/ennot_activeExpired - Fee Related
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| CN105391493B (en)* | 2009-05-12 | 2019-02-19 | 翔跃通信公司 | Dual-mode wireless electric installation for frequency division multiplexing and time-division multiplex communication mode |
| CN102439891A (en)* | 2009-05-12 | 2012-05-02 | 翔跃通信公司 | Dual mode radio for frequency division multiplexing and time division multiplexing communication modes |
| CN101980580A (en)* | 2010-11-29 | 2011-02-23 | 大唐移动通信设备有限公司 | Base station, remote radio unit and signal sending method thereof |
| CN102098071A (en)* | 2010-12-13 | 2011-06-15 | 华为技术有限公司 | Method, device and system for transmitting communication signals |
| US8903330B2 (en) | 2010-12-13 | 2014-12-02 | Huawei Technologies Co., Ltd. | Communication signal transmission method, device and system |
| CN102098071B (en)* | 2010-12-13 | 2014-06-04 | 华为技术有限公司 | Method, device and system for transmitting communication signals |
| WO2012100628A1 (en)* | 2011-01-30 | 2012-08-02 | 华为技术有限公司 | Base station equipment, communication system and communication method |
| CN102655417B (en)* | 2012-04-20 | 2015-01-21 | 华为技术有限公司 | Wireless local area network (WLAN) equipment and method for suppressing interference of wireless local area network equipment |
| CN102655417A (en)* | 2012-04-20 | 2012-09-05 | 华为技术有限公司 | Wireless local area network (WLAN) equipment and method for suppressing interference of wireless local area network equipment |
| CN104469860A (en)* | 2013-09-24 | 2015-03-25 | 联想(北京)有限公司 | Resource distributing method and device |
| CN105264791B (en)* | 2014-01-15 | 2018-10-12 | 华为技术有限公司 | Radio-frequency apparatus and custom system |
| CN105264791A (en)* | 2014-01-15 | 2016-01-20 | 华为技术有限公司 | Radio frequency device and user system |
| CN105099631A (en)* | 2014-04-17 | 2015-11-25 | 北京三星通信技术研究有限公司 | Method and device for processing flexible duplex |
| US11184143B2 (en) | 2014-04-17 | 2021-11-23 | Samsung Electronics Co., Ltd | Method and apparatus for processing flexible duplex |
| WO2016019738A1 (en)* | 2014-08-04 | 2016-02-11 | 中兴通讯股份有限公司 | Method for controlling transmission of channel state information, base station, terminal and storage medium |
| CN105991711A (en)* | 2015-02-11 | 2016-10-05 | 中国移动通信集团公司 | Communication method, terminal and correlation equipment thereof |
| WO2017050008A1 (en)* | 2015-09-25 | 2017-03-30 | 华为技术有限公司 | Resource allocation method and apparatus |
| US10433300B2 (en) | 2015-09-25 | 2019-10-01 | Huawei Technologies Co., Ltd. | Resource allocation method and apparatus |
| CN108464028A (en)* | 2016-02-19 | 2018-08-28 | 富士通株式会社 | Frequency band allocation device, method and communication system |
| CN108464028B (en)* | 2016-02-19 | 2023-01-17 | 富士通株式会社 | Frequency band allocation device, method and communication system |
| CN108933609B (en)* | 2017-05-27 | 2021-01-12 | 华为技术有限公司 | TDD/FDD configurable device, method, radio frequency module and communication equipment |
| WO2018219219A1 (en)* | 2017-05-27 | 2018-12-06 | 华为技术有限公司 | Tdd/fdd configurable device, method, radio frequency module and communication device |
| CN108933609A (en)* | 2017-05-27 | 2018-12-04 | 华为技术有限公司 | TDD/FDD configurable device, method, radio-frequency module and communication equipment |
| CN110224704A (en)* | 2018-03-01 | 2019-09-10 | 成都鼎桥通信技术有限公司 | Radio frequency system and base station equipment |
| CN110224704B (en)* | 2018-03-01 | 2021-10-15 | 成都鼎桥通信技术有限公司 | Radio frequency system and base station equipment |
| CN110289879A (en)* | 2018-03-14 | 2019-09-27 | 成都鼎桥通信技术有限公司 | Radio frequency unit and terminal device |
| CN110289879B (en)* | 2018-03-14 | 2021-10-15 | 成都鼎桥通信技术有限公司 | Radio frequency unit and terminal equipment |
| CN108599808A (en)* | 2018-07-06 | 2018-09-28 | 中国电子科技集团公司第五十四研究所 | A kind of transceiving radio frequency module of duplex half-duplex compatibility mode |
| CN108599808B (en)* | 2018-07-06 | 2024-08-23 | 中国电子科技集团公司第五十四研究所 | Transmit-receive radio frequency module with duplex half-duplex compatible mode |
| CN109088660A (en)* | 2018-09-13 | 2018-12-25 | 维沃移动通信有限公司 | A kind of communication means and mobile terminal of mobile terminal |
| WO2022178133A1 (en)* | 2021-02-19 | 2022-08-25 | Meta Platforms, Inc. | Multiband fdd (frequency division duplex) radio configuration for reduction in transmit and receive path resources |
| CN118381554A (en)* | 2024-06-25 | 2024-07-23 | 银河航天(北京)网络技术有限公司 | Non-ground network communication method, system and device based on auxiliary base station |
| CN118381554B (en)* | 2024-06-25 | 2024-09-03 | 银河航天(北京)网络技术有限公司 | Non-ground network communication method, system and device based on auxiliary base station |
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