CN105636177A - Data transmission end indicating method and device and data transmission end processing method - Google Patents

Data transmission end indicating method and device and data transmission end processing method Download PDF

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Publication number
CN105636177A
CN105636177A CN201410621565.1A CN201410621565A CN105636177A CN 105636177 A CN105636177 A CN 105636177A CN 201410621565 A CN201410621565 A CN 201410621565A CN 105636177 A CN105636177 A CN 105636177A
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macpdu
mark
signal
data burst
data
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杨瑾
李儒岳
吴栓栓
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ZTE Corp
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ZTE Corp
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Priority to CN201410621565.1A priority Critical patent/CN105636177A/en
Priority to PCT/CN2015/086274 priority patent/WO2016070660A1/en
Publication of CN105636177A publication Critical patent/CN105636177A/en
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    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04WWIRELESS COMMUNICATION NETWORKS
    • H04W52/00Power management, e.g. TPC [Transmission Power Control], power saving or power classes
    • H04W52/02Power saving arrangements
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02DCLIMATE CHANGE MITIGATION TECHNOLOGIES IN INFORMATION AND COMMUNICATION TECHNOLOGIES [ICT], I.E. INFORMATION AND COMMUNICATION TECHNOLOGIES AIMING AT THE REDUCTION OF THEIR OWN ENERGY USE
    • Y02D30/00Reducing energy consumption in communication networks
    • Y02D30/70Reducing energy consumption in communication networks in wireless communication networks

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  • Engineering & Computer Science (AREA)
  • Computer Networks & Wireless Communication (AREA)
  • Signal Processing (AREA)
  • Mobile Radio Communication Systems (AREA)

Abstract

The present invention discloses a data transmission end indicating method and device and a data transmission end processing method. In the above method, the indication modes adopted by the data subframe resources of continuous X units included in an identification window are determined, wherein the indication modes are used for indicating that a reception terminal stops detecting and receiving the subsequent data subframe resources of the data subframe resources of the continuous X units, and the X is a positive integer; and the corresponding operations are executed according to the indication modes. According to the technical scheme provided by the present invention, the UE power consumption is reduced, and the signal interference is relieved.

Description

The instruction of DTD, processing method and device
Technical field
The present invention relates to the communications field, in particular to the instruction of a kind of DTD, processing method and device.
Background technology
At present, at device-to-device (Device-to-Device, referred to as D2D) in communication system, subscriber equipment (UserEquipment, referred to as UE) between when having service needed to transmit, business datum between UE needs not move through the forwarding of base station, but is directly passed through air interface transmission to target UE by data source UE. Fig. 1 is the D2D communication structure schematic diagram according to correlation technique. As shown in Figure 1, this communication pattern has the feature being clearly distinguishable from conventional cellular systems communication pattern, for the short-range communication user that can apply D2D communication mode, D2D transmission not only can save radio spectrum resources, but also the data that can reduce core net transmit pressure, reduce system resource and take, increase the spectrum efficiency of cellular communication system, reduce terminal transmission power consumption, and save network operation cost to a great extent.
In Long Term Evolution (LTE) system, Fig. 2 is the schematic diagram of the LTE system frame structure according to correlation technique. As in figure 2 it is shown, Radio Resource divides resource in time domain in units of radio frames, each radio frames is 10ms, wherein it is possible to comprise 10 subframes. Each subframe is 1ms, and it can be divided into 2 time slots (slot) of 0.5ms, adopts same frame structure in D2D communicates. Medium education (MediumAccessControl in LTE system, referred to as MAC) layer, data between eNB and UE are with MAC Service Data Unit (ServiceDataUnit, referred to as SDU) for the unit control element (ControlElement relevant with MAC layer, referred to as CE) being packaged into Medium Access Control (MAC) Protocol Data Unit (ProtocolDataUnit, referred to as PDU) by certain rule carries out the encapsulated delivery of data jointly. The form of the MACPDU of LTE system is as shown in Figure 3: being divided into MACPDU head (Header) and MACPDU payload (Payload) two parts on the whole, in a MACPDU, head part, front, accepts thereafter effective loading section. Comprising multiple MACPDU head (Sub-header) in MACPDU head, payload part comprises some MACSDU and MACCE, it is also possible to include the certain byte of padding Padding introduced according to the length legislations of MACPDU.
In D2D communication system, being made directly the transmission of data between UE, transmitting terminal UE itself needs to send D2D and controls information, to relevant informations such as the resources that the data signal transmitted of receiving terminal UE instruction uses. Transmitting terminal UE is at D2D link control message (SidelinkControlInformation, referred to as SCI) instruction uses in signaling physics limit link shared channels (PhysicalSidelinkSharedChannel, referred to as PSSCH) resource and relevant control information, indicated PSSCH resource carries out the transmission of D2D data. Transmitting terminal UE indicates the PSSCH sub-frame resources used in PSSCH cycle or physics limit link control channel (PSCCH) cycle in SCI by time-domain resource pattern (TimeResourcePattern, referred to as TRP). Fig. 4 is the schematic diagram being indicated PSSCH sub-frame resources by TRP according to correlation technique. As shown in Figure 4, each TRP indexes corresponding to a unique bitmap pattern (bitmappattern), bitmappattern indicated by TRP, the corresponding subframe that bit bit-identify is " 1 " is namely designated as PSSCH subframe, bitmappattern repeats at PSCCH cycle internal recycle, to reach the sub-frame configuration in the whole cycle is indicated. Transmitting terminal UE can reach the configuration instruction of one or more PSSCH subframes in the cycle by sending once effective SCI information within each cycle. Therefore, the scheduling of PSSCH resource is indicated in units of the cycle by SCI, would be likely to occur certain difference between scheduling of resource instruction and the dynamic business actual demand of so bigger granularity, make the PSSCH subframe of instruction and transmitting terminal UE need Incomplete matching between the data launched. When transmitting terminal UE does not have valid data to launch in all or part of PSSCH subframe indicated, transmitting terminal UE cannot indicate the residue PSSCH subframe not carrying data, and receiving terminal UE needs that under the premise not being explicitly indicated the PSSCH subframe of all configurations carries out detection and receives, so there is certain power dissipation.
In sum, there are differences between the scheduling of resource indicating mode and the dynamic business actual demand that adopt in correlation technique, easily cause power dissipation.
Summary of the invention
Embodiments provide the instruction of a kind of DTD, processing method and device, at least to solve to there are differences between scheduling of resource indicating mode and the dynamic business actual demand adopted in correlation technique, the problem easily causing power dissipation.
According to an aspect of the invention, it is provided the indicating means of a kind of DTD.
The indicating means of DTD according to embodiments of the present invention comprises determining that the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window, wherein, indicating mode for indicate receiving terminal stop at continuous X unit data burst resource follow-up data sub-frame resources on carry out detection receive, X is the length of mark window, and X is positive integer; Mode performs the operation of correspondence as indicated.
Preferably, determine that the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window includes one below: the data burst resource of continuous X the unit comprised in mark window does not send signal, if for indicating receiving terminal to be not detected by useful signal in the data burst resource of continuous X unit, then stop at and follow-up data sub-frame resources carries out detection reception; The data burst resource of continuous X the unit comprised in mark window sends id signal, wherein, if id signal is for indicating receiving terminal id signal to be detected in the data burst resource of continuous X unit, then stops at and follow-up data sub-frame resources carries out detection reception.
Preferably, identify the length X of window and send required sub-frame number for unit in units of subframe or with each medium education (MAC) protocol Data Unit (PDU).
Preferably, the length X of mark window is configured by high-level signaling by network side, and wherein, high-level signaling is one below: system information block (SIB) message, wireless heterogeneous networks (RRC) message.
Preferably, the length X identifying window by the pre-configured numerical value of system or is the fixed numbers of system definition.
Preferably, the length X identifying window is determined by time-domain resource configuration parameter.
Preferably, time-domain resource configuration parameter includes at least one of: the data configuration instruction cycle; Time-domain resource pattern (TRP) effectively indicates figure place; Sub-frame number in data burst resource pool; The quantity of the MACPDU of transmission; Maximum available MACPDU transmits quantity.
Preferably, the data configuration instruction cycle is one below: physics limit link shared channels (PSSCH) resource period, physics limit link control channel (PSCCH) resource period.
Preferably, the effectively instruction figure place in TRP is that in TRP bitmap, value is the bit quantity of 1.
Preferably, the sub-frame number in data burst resource pool is the data burst quantity comprised in PSSCH resource pool.
Preferably, the quantity of the MACPDU of transmission is the quantity of the MACPDU that transmitting terminal sends within a PSSCH or PSCCH cycle.
Preferably, maximum available MACPDU transmits quantity is the maximum MACPDU quantity carried in the PSSCH subframe that can use within a PSSCH or PSCCH cycle.
Preferably, the length X of mark window is based on the logic continuous print subframe of X unit of data burst resource.
Preferably, referring to DTD within certain cycle by not sending signal or transmission id signal instruction receiving terminal DTD, the cycle is PSSCH or the PSCCH cycle.
Preferably, when the length X identifying window sends in units of required sub-frame number by each MACPDU, X is with 4 subframes for a unit.
Preferably, by do not send signal or send id signal instruction receiving terminal DTD include one below: transmitting terminal does not have data to be sent within current PSSCH or the PSCCH cycle; Transmitting terminal has sent one or more MACPDU within current PSSCH or the PSCCH cycle, and does not have data to be sent in remaining PSSCH subframe within current PSSCH or the PSCCH cycle.
Preferably, id signal includes at least one of: information content is the MACPDU of full 0; Information content is the MACPDU of complete 1; MACPDU containing mark MAC head; MACPDU containing mark MAC control element CE; MACPDU containing mark MAC Service Data Unit SDU; MACPDU without MACSDU; Information content is the transmission block TB of full 0; Information content is the transmission block TB of complete 1; Information content is the TB of pre-configured or fixing special sequence.
Preferably, as the MACPDU that id signal is containing the sub-head of mark, identify the special MAC head that sub-head is system definition, for indicating the MACPDU comprising this MAC head to be mark MACPDU.
Preferably, as the MACPDU that id signal is containing mark MACCE, mark MACCE is the special MACCE of system definition, for indicating the MACPDU comprising this MACCE to be mark MACPDU.
Preferably, as the MACPDU that id signal is containing mark MACSDU, mark MACSDU is the special MACSDU of system definition, for indicating the MACPDU comprising this MACSDU to be mark MACPDU.
Preferably, as the MACPDU that id signal is without MACSDU, MACPDU does not carry any MADSDU, be used for indicating this MACPDU for mark MACPDU.
Preferably, when id signal is the TB that information content is special sequence, adopt the 1 and 0 alternately reciprocal information content that sequence is TB.
Preferably, network side include following entity at least one: evolved base station (eNB); Relay station (RN); Cell cooperative entity (MCE); Gateway (GW); Mobility management apparatus (MME); Evolved UTRAN (EUTRAN); Operation management and safeguard (OAM) manager.
According to a further aspect in the invention, it is provided that the processing method of a kind of DTD.
The processing method of DTD according to embodiments of the present invention includes: obtain the indicating mode taked in the data burst resource of continuous X the unit that transmitting terminal comprises in mark window, wherein, indicating mode is for indicating DTD in the data burst resource of continuous X unit, X is the length of mark window, and X is positive integer; Stop at according to indicating mode continuous X unit data burst resource follow-up data sub-frame resources on carry out detection receive.
Preferably, one of indicating mode taked in the data burst resource of continuous X the unit that acquisition transmitting terminal comprises in mark window: determine that transmitting terminal does not send signal in the data burst resource identifying continuous X the unit comprised in window, if for indicating receiving terminal to be not detected by useful signal in the data burst resource of continuous X unit, then stop at and follow-up data sub-frame resources carries out detection reception; Obtain and the data burst resource of continuous X the unit that transmitting terminal comprises in mark window sends id signal, wherein, if id signal is for indicating receiving terminal id signal to be detected in the data burst resource of continuous X unit, then stops at and follow-up data sub-frame resources carries out detection reception.
According to another aspect of the invention, it is provided that the instruction device of a kind of DTD.
The instruction device of DTD according to embodiments of the present invention comprises determining that module, for determining the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window, wherein, indicating mode for indicate receiving terminal stop at continuous X unit data burst resource follow-up data sub-frame resources on carry out detection receive, X is the length of mark window, and X is positive integer; Perform module, perform the operation of correspondence for mode as indicated.
Preferably, determine module, for determining that the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window includes one below: the data burst resource of continuous X the unit comprised in mark window does not send signal, if for indicating receiving terminal to be not detected by useful signal in the data burst resource of continuous X unit, then stop at and follow-up data sub-frame resources carries out detection reception; The data burst resource of continuous X the unit comprised in mark window sends id signal, wherein, if id signal is for indicating receiving terminal id signal to be detected in the data burst resource of continuous X unit, then stops at and follow-up data sub-frame resources carries out detection reception.
Preferably, the length X of mark window, send in units of required sub-frame number in units of subframe or by each MACPDU.
Preferably, the length X of mark window is configured by high-level signaling by network side, and wherein, high-level signaling is one below: SIB message, RRC information.
Preferably, the length X identifying window by the pre-configured numerical value of system or is the fixed numbers of system definition.
Preferably, the length X identifying window is determined by time-domain resource configuration parameter.
Preferably, time-domain resource configuration parameter includes at least one of: the data configuration instruction cycle; TRP effectively indicates figure place; Sub-frame number in data burst resource pool; The quantity of the MACPDU of transmission; Maximum available MACPDU transmits quantity.
Preferably, the data configuration instruction cycle is one below: PSSCH resource period, PSCCH resource period.
Preferably, the effectively instruction figure place in TRP is that in TRP bitmap, value is the bit quantity of 1.
Preferably, the sub-frame number in data burst resource pool is the data burst quantity comprised in PSSCH resource pool.
Preferably, the quantity of the MACPDU of transmission is the quantity of the MACPDU that transmitting terminal sends within a PSSCH or PSCCH cycle.
Preferably, maximum available MACPDU transmits quantity is the maximum MACPDU quantity carried in the PSSCH subframe that can use within a PSSCH or PSCCH cycle.
Preferably, the length X of mark window is based on the logic continuous print subframe of X unit of data burst resource.
Preferably, referring to DTD within certain cycle by not sending signal or transmission id signal instruction receiving terminal DTD, the cycle is PSSCH or the PSCCH cycle.
Preferably, when the length X identifying window sends in units of required sub-frame number by each MACPDU, X is with 4 subframes for a unit.
Preferably, by do not send signal or send id signal instruction receiving terminal DTD include one below: transmitting terminal does not have data to be sent within current PSSCH or the PSCCH cycle; Transmitting terminal has sent one or more MACPDU within current PSSCH or the PSCCH cycle, and does not have data to be sent in remaining PSSCH subframe within current PSSCH or the PSCCH cycle.
Preferably, id signal includes at least one of: information content is the MACPDU of full 0; Information content is the MACPDU of complete 1; MACPDU containing mark MAC head; MACPDU containing mark MAC control element CE; MACPDU containing mark MAC Service Data Unit SDU; MACPDU without MACSDU; Information content is the transmission block TB of full 0; Information content is the transmission block TB of complete 1; Information content is the TB of pre-configured or fixing special sequence.
Preferably, as the MACPDU that id signal is containing the sub-head of mark, identify the special MAC head that sub-head is system definition, for indicating the MACPDU comprising this MAC head to be mark MACPDU.
Preferably, as the MACPDU that id signal is containing mark MACCE, mark MACCE is the special MACCE of system definition, for indicating the MACPDU comprising this MACCE to be mark MACPDU.
Preferably, as the MACPDU that id signal is containing mark MACSDU, mark MACSDU is the special MACSDU of system definition, for indicating the MACPDU comprising this MACSDU to be mark MACPDU.
Preferably, as the MACPDU that id signal is without MACSDU, MACPDU does not carry any MADSDU, be used for indicating this MACPDU for mark MACPDU.
Preferably, when id signal is the TB that information content is special sequence, adopt the 1 and 0 alternately reciprocal information content that sequence is TB.
Preferably, network side include following entity at least one: eNB; RN; MCE; GW; MME; EUTRAN; OAM manager.
In accordance with a further aspect of the present invention, it is provided that the process device of a kind of DTD.
The process device of DTD according to embodiments of the present invention includes: acquisition module, for obtaining the indicating mode taked in the data burst resource of continuous X the unit that transmitting terminal comprises in mark window, wherein, indicating mode is for indicating DTD in the data burst resource of continuous X unit, X is the length of mark window, and X is positive integer; Processing module, carries out detection in the follow-up data sub-frame resources stopping at the data burst resource of continuous X unit according to indicating mode and receives.
Preferably, acquisition module, for obtaining one of indicating mode of taking in the data burst resource of continuous X unit that transmitting terminal comprises in mark window: determine that transmitting terminal does not send signal in the data burst resource identifying continuous X the unit comprised in window, if for indicating receiving terminal to be not detected by useful signal in the data burst resource of continuous X unit, then stop at and follow-up data sub-frame resources carries out detection reception; Obtain and the data burst resource of continuous X the unit that transmitting terminal comprises in mark window sends id signal, wherein, if id signal is for indicating receiving terminal id signal to be detected in the data burst resource of continuous X unit, then stops at and follow-up data sub-frame resources carries out detection reception.
Pass through the embodiment of the present invention, adopt and determine the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window, wherein, indicating mode for indicate receiving terminal stop at continuous X unit data burst resource follow-up data sub-frame resources on carry out detection receive, X is the length of mark window, and X is positive integer; Mode performs the operation of correspondence as indicated, solves and there are differences between the scheduling of resource indicating mode adopted in correlation technique and dynamic business actual demand, the problem easily causing power dissipation, and then reduces UE power consumption, alleviates signal disturbing.
Accompanying drawing explanation
Accompanying drawing described herein is used for providing a further understanding of the present invention, constitutes the part of the application, and the schematic description and description of the present invention is used for explaining the present invention, is not intended that inappropriate limitation of the present invention. In the accompanying drawings:
Fig. 1 is the D2D communication structure schematic diagram according to correlation technique;
Fig. 2 is the schematic diagram of the LTE system frame structure according to correlation technique;
Fig. 3 is the LTE system MACPDU structural representation of correlation technique;
Fig. 4 is the schematic diagram being indicated PSSCH sub-frame resources by TRP according to correlation technique;
Fig. 5 is the flow chart of the indicating means of DTD according to embodiments of the present invention;
Fig. 6 is the flow chart of the processing method of DTD according to embodiments of the present invention;
Fig. 7 is that network side passes through the signaling process schematic diagram of SIB message arrangement X value according to the preferred embodiment of the invention;
Fig. 8 is that network side configures the signaling process schematic diagram of X value by RRC information according to the preferred embodiment of the invention;
Fig. 9 processes schematic diagram by the transmitting terminal of the pre-configured mark length of window of system and receiving terminal according to the preferred embodiment of the invention;
Figure 10 processes schematic diagram by the transmitting terminal of system constant mark length of window and receiving terminal according to the preferred embodiment of the invention;
Figure 11 is the structured flowchart of the instruction device of DTD according to embodiments of the present invention;
Figure 12 is the structured flowchart processing device of DTD according to embodiments of the present invention.
Detailed description of the invention
Below with reference to accompanying drawing and describe the present invention in detail in conjunction with the embodiments. It should be noted that when not conflicting, the embodiment in the application and the feature in embodiment can be mutually combined.
Fig. 5 is the flow chart of the indicating means of DTD according to embodiments of the present invention. As it is shown in figure 5, the method can include following process step:
Step S502: determine the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window, wherein, indicating mode for indicate receiving terminal stop at continuous X unit data burst resource follow-up data sub-frame resources on carry out detection receive, X is the length of mark window, and X is positive integer;
Step S504: mode performs the operation of correspondence as indicated.
In correlation technique, in D2D communication system, it is possible to use system uplink subframe is as PSSCH subframe, and the D2D transmitting terminal UE having D2D data to be sent can obtain PSSCH sub-frame configuration from eNB, or, select certain subframe as PSSCH subframe in the resource pool that system is pre-configured. Transmitting terminal UE indicates in PSSCH cycle or PSCCH cycle the one or more PSSCH sub-frame resources used in side chain road (i.e. D2D link) controls information (SCI). Minimum time domain granularity during due to scheduling or the transmitting terminal UE tournament selection resource of eNB is a PSCCH cycle, the PSCCH cycle can be 40/80/160/320ms, and actual demand data to be sent for transmitting terminal UE is dynamic, it is likely to not mate with the PSSCH sub-frame resources indicated by period assignment, thus causing that data volume to be sent for transmitting terminal UE is fewer than the sub-frame resources indicated, therefore do not have signal to be sent in all or part of subframe. Adopt method as shown in Figure 5, by arranging mark window, and determine the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window, this indicating mode may indicate that receiving terminal stops at and carries out detection reception in the follow-up data sub-frame resources of the data burst resource of continuous X unit, thus solve and there are differences between the scheduling of resource indicating mode adopted in correlation technique and dynamic business actual demand, the problem easily causing power dissipation, and then reduce UE power consumption, alleviate signal disturbing.
Preferably, in step S502, it is determined that the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window includes one below:
Indicating mode one, the data burst resource of continuous X unit comprised in mark window do not send signal, if for indicating receiving terminal to be not detected by useful signal in the data burst resource of continuous X unit, then stop at and follow-up data sub-frame resources carries out detection reception;
Transmission id signal in indicating mode two, the data burst resource of continuous X unit comprised in mark window, wherein, if id signal is for indicating receiving terminal id signal to be detected in the data burst resource of continuous X unit, then stops at and follow-up data sub-frame resources carries out detection reception.
Namely, when transmitting terminal UE does not have data to need to send, the continuous data subframe of length X unit of mark window does not send signal, or, send id signal and indicate the DTD in this cycle.
In a preferred embodiment, the unit of the length X of mark window can be subframe, namely the X value arranged is X data burst corresponding to mark window, or, the unit of X can also be each medium education (MediumAccessControl, referred to as MAC) protocol Data Unit (ProtocolDataUnit, referred to as PDU) number of times that transmits, the sub-frame number that namely each MACPDU transmission is required, when each MACPDU the number of transmissions is n, then the mark window of the X value correspondence arranged comprises X*n data burst.
The numerical value of the length X of mark window can pass through ought to be not limited to one of in the following manner and be determined:
The configuration instruction of mode one, network side high-level signaling;
The numerical value that mode two, system are pre-configured;
Mode three, system definition fixed numbers;
Mode four, being determined by time-domain resource configuration parameter, wherein, this time-domain resource configuration parameter can include but not limited at least one of:
(1) PSSCH or the PSCCH cycle;
(2) TRP (timeresourcepattern) bitmap is designated as the bit bit quantity k of " 1 ";
(3) sub-frame number comprised in PSSCH resource pool;
(4) quantity of the MACPDU that transmitting terminal UE sends within a PSSCH or PSCCH cycle;
(5) quantity of the maximum media access control protocol data unit MACPDU carried in PSSCH subframe available within a PSSCH or PSCCH cycle.
In being preferable to carry out process, above-mentioned network side can include but not limited at least one in following entity:
(1) evolved base station (evolvedNodeB, referred to as eNB);
(2) relay station (RelayNode);
(3) cell cooperative entity (Multi-cell/multicastCoordinationEntity, referred to as MCE);
(4) gateway (GateWay, referred to as GW);
(5) mobility management apparatus (MobilityManagementEntity, referred to as MME);
(6) Evolved UTRAN (EvolvedUniversalTerrestrialRadioAccessNetwork, referred to as EUTRAN);
(7) operation management and maintenance manager (OperationAdministrationandMaintenance, referred to as OAM).
It should be noted that only illustrate for eNB as the configuration controlled entity of network side in preferred implementation presented below, but it is not intended that the improper restriction to the present invention.
The data burst of continuous X the unit comprised in above-mentioned mark window refers to the logic continuous subframes of X the unit based on data burst resource, and corresponding actual physics subframe can be continuous print or discontinuous.
Above-mentioned transmitting terminal refers to DTD within certain cycle by not sending signal or transmission id signal instruction receiving terminal DTD, for instance: PSSCH or the PSCCH cycle.
The data burst of X the unit that above-mentioned mark window comprises, the length X of mark window is any integer value more than zero, or the integral multiple of each MACPDU the number of transmissions.
In the data burst resource of above-mentioned continuous X the unit comprised in mark window, transmitting terminal is not by sending signal or sending id signal instruction receiving terminal DTD, DTD refers to that transmitting terminal does not have data to be sent within current PSSCH or the PSCCH cycle, or transmitting terminal has sent one or more MACPDU within current PSSCH or the PSCCH cycle, and does not have data to be sent in remaining PSSCH subframe within the cycle.
In a preferred embodiment, transmitting terminal is by sending id signal instruction receiving terminal DTD, and this id signal can be at least one of:
(1) information content is the MACPDU of complete " 0 ";
(2) information content is the MACPDU of complete " 1 ";
(3) containing the MACPDU of mark MAC head;
(4) containing the MACPDU of mark MACCE;
(5) containing the MACPDU of mark MACSDU;
(6) MACPDU without MACSDU;
(7) information content is the transmission block (TB) of complete " 0 ";
(8) information content is the TB of complete " 1 ";
(9) information content is the TB of pre-configured or fixing special sequence.
Preferably, as the MACPDU that id signal is containing the sub-head of mark, identify the special MAC head that sub-head is system definition, for indicating the MACPDU comprising this MAC head to be mark MACPDU.
Preferably, as the MACPDU that id signal is containing mark MACCE, mark MACCE is the special MACCE of system definition, for indicating the MACPDU comprising this MACCE to be mark MACPDU.
Preferably, as the MACPDU that id signal is containing mark MACSDU, mark MACSDU is the special MACSDU of system definition, for indicating the MACPDU comprising this MACSDU to be mark MACPDU.
Preferably, as the MACPDU that id signal is without MACSDU, MACPDU does not carry any MADSDU, be used for indicating this MACPDU for mark MACPDU.
Preferably, when id signal is the TB that information content is special sequence, adopt the 1 and 0 alternately reciprocal information content that sequence is TB.
Fig. 6 is the flow chart of the processing method of DTD according to embodiments of the present invention. As shown in Figure 6, the method can include following process step:
Step S602: obtain the indicating mode taked in the data burst resource of continuous X the unit that transmitting terminal comprises in mark window, wherein, indicating mode is for indicating DTD in the data burst resource of continuous X unit, and X is the length of mark window, and X is positive integer;
Step S604: stop at according to indicating mode continuous X unit data burst resource follow-up data sub-frame resources on carry out detection receive.
Adopt method as shown in Figure 6, solve and there are differences between the scheduling of resource indicating mode adopted in correlation technique and dynamic business actual demand, the problem easily causing power dissipation, and then reduce UE power consumption, alleviate signal disturbing.
Preferably, in step S602, one of indicating mode that the data burst resource of continuous X the unit that acquisition transmitting terminal comprises in mark window is taked:
Acquisition mode one, determine the data burst resource of continuous X unit that transmitting terminal comprises in mark window does not send signal, if for indicating receiving terminal to be not detected by useful signal in the data burst resource of continuous X unit, then stop at and follow-up data sub-frame resources carries out detection reception;
The data burst resource of continuous X the unit that acquisition mode two, acquisition transmitting terminal comprise in mark window sends id signal, wherein, if id signal is for indicating receiving terminal id signal to be detected in the data burst resource of continuous X unit, then stops at and follow-up data sub-frame resources carries out detection reception.
From the angle of receiving terminal UE, when the data burst in X unit of continuous print is not detected by useful signal, or, after receiving id signal, namely think the DTD in this cycle, and no longer follow-up data burst is carried out detection and receives.
Below in conjunction with each preferred implementation following, the above-mentioned process that is preferable to carry out is further described.
Preferred embodiment one
ENB can pass through the length X, the X that identify window in system information block (SystemInformationBlock, referred to as SIB, also referred to as system broadcast message) indicating cell in D2D communication in units of subframe. Now in SIB, the X value of instruction is cell-level configuration parameter, in Ji Dui community, all D2DUE are unified effective, or, further, SIB can carry out the configuration of X value according to different D2DUEgroup, the UE belonging to corresponding D2Dgroup is unified effective by the X value then configuring instruction, wherein, and X > 0.
Fig. 7 is that network side passes through the signaling process schematic diagram of SIB message arrangement X value according to the preferred embodiment of the invention. As it is shown in fig. 7, eNB is by SIB message arrangement instruction X value, X=4, after in community, D2DUE receives SIB message, it is thus achieved that X value configures. After transmitting terminal UE data are sent, ensuing continuous 4 PSSCH subframes send id signal, indicate data to be sent to receiving terminal UE. After receiving terminal UE is consecutively detected the id signal in X subframe, it is determined that in this cycle, data are sent, then no longer receive follow-up data burst.
By identifying the id signal sending X subframe in window, receiving terminal UE can effectively determine that data send and terminate, and receives thus avoiding that subsequent subframe proceeds detection, to realize energy-conservation effect.
Preferred embodiment two
ENB can pass through system wireless resources control (RadioResourceControl, referred to as RRC) message instruction D2D communication identifies the length X of window, X is in units of subframe, RRC information is UE level configuration instruction information, each UE can be stood alone as and carry out the configuration instruction of X value, indicated X value is only effective to the transmitting terminal UE receiving this RRC information, wherein, and X > 0.
Fig. 8 is that network side configures the signaling process schematic diagram of X value by RRC information according to the preferred embodiment of the invention. As shown in Figure 8, eNB indicates X value by D2D communication specialized configuration instruction message (D2DReconfiguration) to transmitting terminal UE, X=2, further, transmitting terminal UE forwards the configuration of X value in PSBCH resource to receiving terminal UE, so that receiving terminal UE can realize the instruction of DTD with transmitting terminal UE according to unified mark length of window.
Preferred embodiment three
Fig. 9 processes schematic diagram by the transmitting terminal of the pre-configured mark length of window of system and receiving terminal according to the preferred embodiment of the invention. As it is shown in figure 9, system pre-configured X=4, X are in units of subframe, the logic continuous print data burst that transmitting terminal UE uses is mapped on continuous print physical sub-frame. Transmitting terminal UE no data within the PSCCH cycle is to be sent, then do not send signal in corresponding subframe. Receiving terminal UE carries out detection according to indicated data burst and receives, and is not detected by useful signal in 4 subframes of continuous print, then it is assumed that no data transmission in this cycle, just no longer remaining data burst is received, thus having reached energy-conservation effect.
Preferred embodiment four
Figure 10 processes schematic diagram by the transmitting terminal of system constant mark length of window and receiving terminal according to the preferred embodiment of the invention. As shown in Figure 10, system constant mark length of window X=3, X are in units of subframe, and the logic continuous print data burst that transmitting terminal UE uses is mapped on discontinuous physical sub-frame. Transmitting terminal UE no data within the PSCCH cycle is to be sent, in corresponding subframe, then send id signal, namely containing mark MAC head, wherein mark MAC head is the special MAC head of system definition, LCID territory in sub-head is the mark indicated value of definition,, it is mark bag that instruction comprises the MACPDU of this MAC head, detects for indicating receiving terminal to stop the reception to remaining data subframe after receiving this MACPDU. Receiving terminal UE carries out detection according to indicated data burst and receives, and id signal detected in 3 subframes of continuous print, then it is assumed that no data transmission in this cycle, just no longer remaining data burst is received, thus having reached energy-conservation effect.
Preferred embodiment five
The length X of mark window can be determined by PSSCH or PSCCH resource period, X is in units of subframe, as shown in table 1, transmitting terminal and receiving terminal can pass through network configuration or the instruction of other information obtains PSCCH resource period, then the corresponding length that may determine that mark window according to the relation between PSCCH cycle and X. Further, when transmitting terminal UE needs instruction receiving terminal UE no data to send, in mark window, then do not send signal or send id signal, receiving terminal UE detection receives on X continuous print data burst without useful signal or receives id signal, the data then thought in this cycle are sent, and remaining data burst just no longer carries out detection and receives.
Table 1
The PSCCH cycle (ms) 40 80 160 320
X 2 4 6 6
Preferred embodiment six
The length X of mark window can be determined by effectively instruction bit position " k " value in TRPbitmap, X is in units of subframe, as shown in table 2, transmitting terminal and receiving terminal can pass through network configuration or the instruction of other information obtains the configuration of " k " value, then the corresponding length that may determine that mark window according to the relation between " k " and X. Further, when transmitting terminal UE needs instruction receiving terminal UE no data to send, in mark window, do not send signal or send id signal, receiving terminal UE detection receives on X continuous print data burst without useful signal or receives id signal, the data then thought in this cycle are sent, and remaining data burst just no longer carries out detection and receives.
Table 2
k 1 2 3 4 5 6 7 8
X 2 2 4 4 4 6 6 6
Preferred embodiment seven
The length X of mark window can determine according to the sub-frame number comprised in PSSCH resource pool, X is in units of subframe, as shown in table 3, transmitting terminal and receiving terminal can pass through network configuration or the instruction of other information obtains the data burst quantity comprised in PSSCH resource pool, then the corresponding length X that may determine that mark window according to the relation between the sub-frame number in resource pool and X.
After transmitting terminal UE has sent data to be sent within the PSSCH cycle, still have residue subframe idle, the instruction follow-up no data of receiving terminal UE is then needed to send, transmitting terminal UE sends id signal on X data burst of continuous print in mark window, and id signal is the special bit sequence " the 101010 ... " TB as information content. Receiving terminal UE is after X continuous print data burst detects id signal, then it is assumed that the data in this cycle are sent, and becomes and remaining data burst no longer carries out detection reception.
Table 3
Preferred embodiment eight
The length X of mark window can determine according to bit bit quantity " k " effective in PSCCH resource period and TRPbitmap, X is in units of subframe, as shown in table 4, transmitting terminal and receiving terminal can pass through network configuration or the instruction of other information obtains PSCCH resource period and " k " value, further, namely can determine that the corresponding length X identifying window.
After transmitting terminal UE has sent data to be sent within the PSCCH cycle, still have residue subframe idle, the instruction follow-up no data of receiving terminal UE is then needed to send, transmitting terminal UE sends id signal on X data burst of continuous print in mark window, id signal is the MACPDU comprising mark MACCE, wherein mark MACCE is the special MACCE of system definition, it is mark bag that instruction comprises the MACPDU of this MACCE, detects for indicating receiving terminal to stop the reception to remaining data subframe after receiving this MACPDU. Receiving terminal UE is after X continuous print data burst detects id signal, then it is assumed that the data in this cycle are sent, and remaining data burst just no longer carries out detection and receives.
Table 4
Preferred embodiment nine
The quantity of the MACPDU that the length X of mark window can have been sent within this cycle by transmitting terminal UE is determined, X is in units of each MACPDU the number of transmissions n, as shown in table 5, receiving terminal can by determining the MACPDU quantity sent to the reception of the MACPDU in this cycle and/or sub-frame configuration situation, then the relation between quantity and the X of the MACPDU sent accordingly based upon transmitting terminal determines the length X of mark window.
After transmitting terminal UE have sent 2 MACPDU within the PSCCH cycle, no data is to be sent, now still have residue subframe idle, the instruction follow-up no data of receiving terminal UE is then needed to send, transmitting terminal UE continuous print X*n in mark window is individual, namely sending id signal on 3n data burst, id signal is the MACPDU without any MACSDU. Receiving terminal UE is after 3n continuous print data burst detects id signal, then it is assumed that the data in this cycle are sent, and remaining data burst just no longer carries out detection and receives.
Table 5
Preferred embodiment ten
The length X of mark window can be determined by the maximum MACPDU quantity carried of data burst of configuration in the cycle, X is in units of each MACPDU the number of transmissions n, as shown in table 6, receiving terminal can pass through data burst configuration in this cycle is determined the maximum MACPDU quantity carried, then the corresponding length X determining mark window according to the relation between maximum MACPDU quantity and the X carried.
Transmitting terminal UE indicates M data burst of configuration within the PSCCH cycle, needs to use n data burst to be transmitted according to each MACPDU, then receiving terminal UE may determine that the maximum MACPDU quantity carried of M the data burst configured. When transmitting terminal to indicate receiving terminal UE no data to send in this cycle domestic demand, transmitting terminal UE sends id signal on X*n data burst of continuous print in mark window, receiving terminal UE is after X*n continuous print data burst detects id signal, the data then thought in this cycle are sent, and remaining data burst just no longer carries out detection and receives.
Table 6
Preferred embodiment 11
The length X of mark window can be determined by PSSCH or PSCCH resource period, X is in units of each MACPDU the number of transmissions n, as shown in table 7, transmitting terminal and receiving terminal can pass through network configuration or the instruction of other information obtains PSCCH resource period, then may determine that mark length of window according to the relation between PSCCH cycle and X accordingly. Further, when transmitting terminal UE needs instruction receiving terminal UE no data to send, in mark window, then do not send signal or send id signal, receiving terminal UE detection receives on X continuous print data burst without useful signal or receives id signal, the data then thought in this cycle are sent, and remaining data burst just no longer carries out detection and receives.
Wherein, when determining the length X of mark window based on PSSCH or PSCCH resource period, it is possible to arrange when the cycle more than certain numerical value time, mark window and corresponding indicative function are effective. As shown in table 7, when PSCCH cycle=40ms time, X value without definition, namely now do not use mark windowing mechanism, no matter whether have sent effective MACPDU on the data burst that transmitting terminal is within the cycle, receiving terminal is required for all of data burst is received detection; And when the PSCCH cycle be more than or equal to 80ms time, then according to the relation between the cycle of system definition and X value, determine and identify length of window accordingly, when transmitting terminal UE no data is to be sent, X*n data burst of continuous print sends id signal, namely containing the MACPDU of mark MACSDU, wherein using fixing special sequence be information content MACSDU for as mark MACSDU, for instance the information bit of MACSDU be complete " 0 " or complete " 1 " or the sequence fixed such as " 101010... " etc. After receiving terminal receives this id signal on continuous X*n data burst, then it is assumed that the data in this cycle are sent, stop the detection of follow-up data subframe is received, reduce the effect of power consumption.
Table 7
The PSCCH cycle (ms) 40 80 160 320
X / 4 6 6
Figure 11 is the structured flowchart of the instruction device of DTD according to embodiments of the present invention. As shown in figure 11, the instruction device of this DTD can apply to transmitting terminal UE, it may include that determines module 10, for determining the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window, wherein, indicating mode for indicate receiving terminal stop at continuous X unit data burst resource follow-up data sub-frame resources on carry out detection receive, X be mark window length, X is positive integer; Perform module 20, perform the operation of correspondence for mode as indicated.
Adopt device as shown in figure 11, solve and there are differences between the scheduling of resource indicating mode adopted in correlation technique and dynamic business actual demand, the problem easily causing power dissipation, and then reduce UE power consumption, alleviate signal disturbing.
Preferably, it is determined that module 10, for determining that the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window includes one below:
Indicating mode one, the data burst resource of continuous X unit comprised in mark window do not send signal, if for indicating receiving terminal to be not detected by useful signal in the data burst resource of continuous X unit, then stop at and follow-up data sub-frame resources carries out detection reception;
Transmission id signal in indicating mode two, the data burst resource of continuous X unit comprised in mark window, wherein, if id signal is for indicating receiving terminal id signal to be detected in the data burst resource of continuous X unit, then stops at and follow-up data sub-frame resources carries out detection reception.
Preferably, the length X of window is identified in units of subframe or in units of the sub-frame number that each MACPDU transmission is required.
Preferably, the length X of above-mentioned mark window is configured by high-level signaling by network side, and wherein, this high-level signaling can be one below:
(1) SIB message;
(2) RRC information.
Preferably, the length X of above-mentioned mark window by the pre-configured numerical value of system or is the fixed numbers of system definition.
Preferably, the length X of above-mentioned mark window is determined by time-domain resource configuration parameter, and wherein, the configuration of this time-domain resource can include but not limited at least one of:
(1) the data configuration instruction cycle;
(2) TRP effectively indicates figure place;
(3) sub-frame number in data burst resource pool;
(4) quantity of the MACPDU transmitted;
(5) maximum available MACPDU transmits quantity.
In being preferable to carry out process, the above-mentioned data configuration instruction cycle can be one below: PSSCH resource period, PSCCH resource period.
Effectively instruction figure place in above-mentioned TRP is that in TRP bitmap, value is the bit quantity of 1.
Sub-frame number in above-mentioned data burst resource pool is the data burst quantity comprised in PSSCH resource pool.
The quantity of the MACPDU of above-mentioned transmission is the quantity of the MACPDU that transmitting terminal sends within a PSSCH or PSCCH cycle.
It is the maximum MACPDU quantity carried in the PSSCH subframe that can use within a PSSCH or PSCCH cycle that above-mentioned maximum available MACPDU transmits quantity.
Preferably, the length X of mark window is based on the logic continuous print subframe of X unit of data burst resource.
Preferably, referring to DTD within certain cycle by not sending signal or transmission id signal instruction receiving terminal DTD, the cycle is PSSCH or the PSCCH cycle.
Preferably, when the length X identifying window sends in units of required sub-frame number by each MACPDU, X is with 4 subframes for a unit.
Preferably, by do not send signal or send id signal instruction receiving terminal DTD can include one below:
(1) transmitting terminal does not have data to be sent within current PSSCH or the PSCCH cycle;
(2) transmitting terminal has sent one or more MACPDU within current PSSCH or the PSCCH cycle, and does not have data to be sent in remaining PSSCH subframe within current PSSCH or the PSCCH cycle.
Preferably, above-mentioned id signal can include but not limited at least one of:
(1) information content is the MACPDU of full 0;
(2) information content is the MACPDU of complete 1;
(3) containing the MACPDU of mark MAC head;
(4) containing the MACPDU of mark MACCE;
(5) containing the MACPDU of mark MACSDU;
(6) MACPDU without MACSDU;
(7) information content is the transmission block TB of full 0;
(8) information content is the transmission block TB of complete 1;
(9) information content is the TB of pre-configured or fixing special sequence.
Preferably, as the MACPDU that id signal is containing the sub-head of mark, identify the special MAC head that sub-head is system definition, for indicating the MACPDU comprising this MAC head to be mark MACPDU.
Preferably, as the MACPDU that id signal is containing mark MACCE, mark MACCE is the special MACCE of system definition, for indicating the MACPDU comprising this MACCE to be mark MACPDU.
Preferably, as the MACPDU that id signal is containing mark MACSDU, mark MACSDU is the special MACSDU of system definition, for indicating the MACPDU comprising this MACSDU to be mark MACPDU.
Preferably, as the MACPDU that id signal is without MACSDU, MACPDU does not carry any MADSDU, be used for indicating this MACPDU for mark MACPDU.
In being preferable to carry out process, when id signal is the TB that information content is special sequence, adopt the 1 and 0 alternately reciprocal information content that sequence is TB.
Such as: replacing reciprocal sequence according to 1 and 0 is " 101010 ... "; Or, replacing reciprocal sequence according to 1 and 0 is " 010101 ... ".
In being preferable to carry out process, above-mentioned network side can include but not limited at least one in following entity:
(1) evolved base station (evolvedNodeB, referred to as eNB);
(2) relay station (RelayNode);
(3) cell cooperative entity (Multi-cell/multicastCoordinationEntity, referred to as MCE);
(4) gateway (GateWay, referred to as GW);
(5) mobility management apparatus (MobilityManagementEntity, referred to as MME);
(6) Evolved UTRAN (EvolvedUniversalTerrestrialRadioAccessNetwork, referred to as EUTRAN);
(7) operation management and safeguard (OperationAdministrationandMaintenance, referred to as OAM) manager.
Figure 11 is the structured flowchart processing device of DTD according to embodiments of the present invention. As shown in figure 11, the process device of this DTD may include that acquisition module 30, for obtaining the indicating mode taked in the data burst resource of continuous X the unit that transmitting terminal comprises in mark window, wherein, indicating mode is for indicating DTD in the data burst resource of continuous X unit, X is the length of mark window, and X is positive integer; Processing module 40, carries out detection in the follow-up data sub-frame resources stopping at the data burst resource of continuous X unit according to indicating mode and receives.
Preferably, acquisition module 30, for obtaining one of indicating mode of taking in the data burst resource of continuous X unit that transmitting terminal comprises in mark window:
Acquisition mode one, determine the data burst resource of continuous X unit that transmitting terminal comprises in mark window does not send signal, if for indicating receiving terminal to be not detected by useful signal in the data burst resource of continuous X unit, then stop at and follow-up data sub-frame resources carries out detection reception;
The data burst resource of continuous X the unit that acquisition mode two, acquisition transmitting terminal comprise in mark window sends id signal, wherein, if id signal is for indicating receiving terminal id signal to be detected in the data burst resource of continuous X unit, then stops at and follow-up data sub-frame resources carries out detection reception.
In from the description above, can be seen that, above embodiments enable following technique effect (it should be noted that these effects are the effects that some preferred embodiment can reach): adopt the technical scheme that the embodiment of the present invention provides, by arranging mark window X, reach the effect of mark DTD, transmitting terminal UE be can be identified for that, and data transmission terminates, and make receiving terminal UE can determine DTD by the detection in mark window, and stop the detection of residue subframe is received, to reduce UE power consumption, alleviate the effect of signal disturbing. Meanwhile, according to the detection to mark window, for remaining idle subframe, it is also possible to be scheduling using by eNB or other UE further, thus improve the utilization rate of system resource.
Obviously, those skilled in the art should be understood that, each module of the above-mentioned present invention or each step can realize with general calculation element, they can concentrate on single calculation element, or it is distributed on the network that multiple calculation element forms, alternatively, they can realize with the executable program code of calculation element, thus, can be stored in storage device is performed by calculation element, and in some cases, shown or described step can be performed with the order being different from herein, or they are fabricated to respectively each integrated circuit modules, or the multiple modules in them or step are fabricated to single integrated circuit module realize. so, the present invention is not restricted to the combination of any specific hardware and software.
The foregoing is only the preferred embodiments of the present invention, be not limited to the present invention, for a person skilled in the art, the present invention can have various modifications and variations. All within the spirit and principles in the present invention, any amendment of making, equivalent replacement, improvement etc., should be included within protection scope of the present invention.

Claims (50)

1. the indicating means of a DTD, it is characterised in that including:
Determine the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window, wherein, described indicating mode for indicate receiving terminal stop at described continuous X unit data burst resource follow-up data sub-frame resources on carry out detection receive, described X is the length of described mark window, and X is positive integer;
Corresponding operation is performed according to described indicating mode.
2. method according to claim 1, it is characterised in that determine that the described indicating mode taked in the data burst resource of described continuous X the unit comprised in described mark window includes one below:
The data burst resource of continuous X the unit comprised in described mark window does not send signal, if for indicating described receiving terminal to be not detected by useful signal in the data burst resource of described continuous X unit, then stop at and described follow-up data sub-frame resources carries out detection reception;
The data burst resource of continuous X the unit comprised in described mark window sends id signal, wherein, if described id signal is for indicating described receiving terminal described id signal to be detected in the data burst resource of described continuous X unit, then stops at and described follow-up data sub-frame resources carries out detection reception.
3. method according to claim 1, it is characterised in that the length X of described mark window sends in units of required sub-frame number in units of subframe or by each media access control MAC protocol data cell PDU.
4. method according to claim 1, it is characterised in that the length X of described mark window is configured by high-level signaling by network side, wherein, described high-level signaling is one below: system information block SIB message, radio resource control RRC message.
5. method according to claim 1, it is characterised in that the length X of described mark window is by the pre-configured numerical value of system or be the fixed numbers of system definition.
6. method according to claim 1, it is characterised in that the length X of described mark window is determined by time-domain resource configuration parameter.
7. method according to claim 6, it is characterised in that described time-domain resource configuration parameter includes at least one of:
The data configuration instruction cycle;
Time-domain resource pattern TRP effectively indicates figure place;
Sub-frame number in data burst resource pool;
The quantity of the MACPDU of transmission;
Maximum available MACPDU transmits quantity.
8. method according to claim 7, it is characterised in that the described data configuration instruction cycle is one below: physics limit link shared channels PSSCH resource period, physics limit link control channel PSCCH resource period.
9. method according to claim 7, it is characterised in that the effectively instruction figure place in described TRP is that in TRP bitmap, value is the bit quantity of 1.
10. method according to claim 7, it is characterised in that the sub-frame number in described data burst resource pool is the data burst quantity comprised in PSSCH resource pool.
11. method according to claim 7, it is characterised in that the quantity of the MACPDU of described transmission is the quantity of the MACPDU that transmitting terminal sends within a PSSCH or PSCCH cycle.
12. method according to claim 7, it is characterised in that it is the maximum MACPDU quantity carried in the PSSCH subframe that can use within a PSSCH or PSCCH cycle that described maximum available MACPDU transmits quantity.
13. the method according to any one of claim 1 to 12, it is characterised in that the length X of described mark window is based on the logic continuous print subframe of X unit of data burst resource.
14. the method according to any one of claim 1 to 12, it is characterized in that, by do not send signal or send described id signal indicate described receiving terminal DTD refer to that DTD within certain cycle, described cycle are PSSCH or the PSCCH cycle.
15. method according to claim 1, it is characterised in that when the length X of described mark window sends in units of required sub-frame number by each MACPDU, X is with 4 subframes for a unit.
16. method according to claim 2, it is characterised in that by do not send signal or send described id signal indicate described receiving terminal DTD include one below:
Described transmitting terminal does not have data to be sent within current PSSCH or the PSCCH cycle;
Described transmitting terminal has sent one or more MACPDU within described current PSSCH or the PSCCH cycle, and does not have data to be sent in remaining PSSCH subframe within described current PSSCH or the PSCCH cycle.
17. method according to claim 2, it is characterised in that described id signal includes at least one of:
Information content is the MACPDU of full 0;
Information content is the MACPDU of complete 1;
MACPDU containing mark MAC head;
MACPDU containing mark MAC control element CE;
MACPDU containing mark MAC Service Data Unit SDU;
MACPDU without MACSDU;
Information content is the transmission block TB of full 0;
Information content is the transmission block TB of complete 1;
Information content is the TB of pre-configured or fixing special sequence.
18. method according to claim 17, it is characterized in that, when described id signal is the described MACPDU containing the sub-head of mark, described mark sub-head is the special MAC head of system definition, for indicating the MACPDU comprising described MAC head to be mark MACPDU.
19. method according to claim 17, it is characterised in that when described id signal is the described MACPDU containing mark MACCE, described mark MACCE is the special MACCE of system definition, for indicating the MACPDU comprising described MACCE to be mark MACPDU.
20. method according to claim 17, it is characterized in that, when described id signal is the described MACPDU containing mark MACSDU, described mark MACSDU is the special MACSDU of system definition, for indicating the MACPDU comprising described MACSDU to be mark MACPDU.
21. method according to claim 17, it is characterised in that when described id signal is the described MACPDU without MACSDU, do not carry any MADSDU in described MACPDU, it is used for indicating described MACPDU for mark MACPDU.
22. method according to claim 17, it is characterised in that when described id signal is the TB that described information content is special sequence, adopt the 1 and 0 alternately reciprocal information content that sequence is described TB.
23. method according to claim 4, it is characterised in that described network side include following entity at least one:
Evolved base station eNB;
Relay station RN;
Cell cooperative entity MCE;
Gateway GW;
Mobility management apparatus MME;
Evolved UTRAN EUTRAN;
Operation management and safeguard OAM manager.
24. the processing method of a DTD, it is characterised in that including:
Obtain the indicating mode taked in the data burst resource of continuous X the unit that transmitting terminal comprises in mark window, wherein, described indicating mode is for indicating DTD in the data burst resource of described continuous X unit, described X is the length of described mark window, and X is positive integer;
Stop at according to described indicating mode described continuous X unit data burst resource follow-up data sub-frame resources on carry out detection receive.
25. method according to claim 24, it is characterised in that obtain one of described indicating mode of taking in the data burst resource of described continuous X the unit that described transmitting terminal comprises in described mark window:
Determine and the data burst resource of continuous X the unit that described transmitting terminal comprises in described mark window does not send signal, if for indicating receiving terminal to be not detected by useful signal in the data burst resource of described continuous X unit, then stop at and described follow-up data sub-frame resources carries out detection reception;
Obtain transmission id signal in the data burst resource of continuous X the unit that described transmitting terminal comprises in described mark window, wherein, if described id signal is for indicating described receiving terminal described id signal to be detected in the data burst resource of described continuous X unit, then stops at and described follow-up data sub-frame resources carries out detection reception.
26. the instruction device of a DTD, it is characterised in that including:
Determine module, for determining the indicating mode taked in the data burst resource of continuous X the unit comprised in mark window, wherein, described indicating mode for indicate receiving terminal stop at described continuous X unit data burst resource follow-up data sub-frame resources on carry out detection receive, described X is the length of described mark window, and X is positive integer;
Perform module, for performing corresponding operation according to described indicating mode.
27. device according to claim 26, it is characterised in that described determine module, for determining that the described indicating mode taked in the data burst resource of described continuous X the unit comprised in described mark window includes one below:
The data burst resource of continuous X the unit comprised in described mark window does not send signal, if for indicating described receiving terminal to be not detected by useful signal in the data burst resource of described continuous X unit, then stop at and described follow-up data sub-frame resources carries out detection reception;
The data burst resource of continuous X the unit comprised in described mark window sends id signal, wherein, if described id signal is for indicating described receiving terminal described id signal to be detected in the data burst resource of described continuous X unit, then stops at and described follow-up data sub-frame resources carries out detection reception.
28. device according to claim 26, it is characterised in that the length X of described mark window sends in units of required sub-frame number in units of subframe or by each media access control MAC protocol data cell PDU.
29. device according to claim 26, it is characterised in that the length X of described mark window is configured by high-level signaling by network side, wherein, described high-level signaling is one below: system information block SIB message, radio resource control RRC message.
30. device according to claim 26, it is characterised in that the length X of described mark window is by the pre-configured numerical value of system or be the fixed numbers of system definition.
31. device according to claim 26, it is characterised in that the length X of described mark window is determined by time-domain resource configuration parameter.
32. device according to claim 31, it is characterised in that described time-domain resource configuration parameter includes at least one of:
The data configuration instruction cycle;
Time-domain resource pattern TRP effectively indicates figure place;
Sub-frame number in data burst resource pool;
The quantity of the MACPDU of transmission;
Maximum available MACPDU transmits quantity.
33. device according to claim 32, it is characterised in that the described data configuration instruction cycle is one below: physics limit link shared channels PSSCH resource period, physics limit link control channel PSCCH resource period.
34. device according to claim 32, it is characterised in that the effectively instruction figure place in described TRP is that in TRP bitmap, value is the bit quantity of 1.
35. device according to claim 32, it is characterised in that the sub-frame number in described data burst resource pool is the data burst quantity comprised in PSSCH resource pool.
36. device according to claim 32, it is characterised in that the quantity of the MACPDU of described transmission is the quantity of the MACPDU that transmitting terminal sends within a PSSCH or PSCCH cycle.
37. device according to claim 32, it is characterised in that it is the maximum MACPDU quantity carried in the PSSCH subframe that can use within a PSSCH or PSCCH cycle that described maximum available MACPDU transmits quantity.
38. the device according to any one of claim 26 to 37, it is characterised in that the length X of described mark window is based on the logic continuous print subframe of X unit of data burst resource.
39. the device according to any one of claim 26 to 37, it is characterized in that, by do not send signal or send described id signal indicate described receiving terminal DTD refer to that DTD within certain cycle, described cycle are PSSCH or the PSCCH cycle.
40. device according to claim 26, it is characterised in that when the length X of described mark window sends in units of required sub-frame number by each MACPDU, X is with 4 subframes for a unit.
41. device according to claim 27, it is characterised in that by do not send signal or send described id signal indicate described receiving terminal DTD include one below:
Described transmitting terminal does not have data to be sent within current PSSCH or the PSCCH cycle;
Described transmitting terminal has sent one or more MACPDU within described current PSSCH or the PSCCH cycle, and does not have data to be sent in remaining PSSCH subframe within described current PSSCH or the PSCCH cycle.
42. device according to claim 27, it is characterised in that described id signal includes at least one of:
Information content is the MACPDU of full 0;
Information content is the MACPDU of complete 1;
MACPDU containing mark MAC head;
MACPDU containing mark MAC control element CE;
MACPDU containing mark MAC Service Data Unit SDU;
MACPDU without MACSDU;
Information content is the transmission block TB of full 0;
Information content is the transmission block TB of complete 1;
Information content is the TB of pre-configured or fixing special sequence.
43. device according to claim 42, it is characterized in that, when described id signal is the described MACPDU containing the sub-head of mark, described mark sub-head is the special MAC head of system definition, for indicating the MACPDU comprising described MAC head to be mark MACPDU.
44. device according to claim 42, it is characterised in that when described id signal is the described MACPDU containing mark MACCE, described mark MACCE is the special MACCE of system definition, for indicating the MACPDU comprising described MACCE to be mark MACPDU.
45. device according to claim 42, it is characterized in that, when described id signal is the described MACPDU containing mark MACSDU, described mark MACSDU is the special MACSDU of system definition, for indicating the MACPDU comprising described MACSDU to be mark MACPDU.
46. device according to claim 42, it is characterised in that when described id signal is the described MACPDU without MACSDU, do not carry any MADSDU in described MACPDU, it is used for indicating described MACPDU for mark MACPDU.
47. device according to claim 42, it is characterised in that when described id signal includes the TB that described information content is special sequence, adopt the 1 and 0 alternately reciprocal information content that sequence is described TB.
48. device according to claim 29, it is characterised in that described network side include following entity at least one:
Evolved base station eNB;
Relay station RN;
Cell cooperative entity MCE;
Gateway GW;
Mobility management apparatus MME;
Evolved UTRAN EUTRAN;
Operation management and safeguard OAM manager.
49. the process device of a DTD, it is characterised in that including:
Acquisition module, for obtaining the indicating mode taked in the data burst resource of continuous X the unit that transmitting terminal comprises in mark window, wherein, described indicating mode is for indicating DTD in the data burst resource of described continuous X unit, described X is the length of described mark window, and X is positive integer;
Processing module, carries out detection in the follow-up data sub-frame resources stopping at the data burst resource of described continuous X unit according to described indicating mode and receives.
50. device according to claim 49, it is characterised in that described acquisition module, for obtaining one of described indicating mode of taking in the data burst resource of described continuous X the unit that described transmitting terminal comprises in described mark window:
Determine and the data burst resource of continuous X the unit that described transmitting terminal comprises in described mark window does not send signal, if for indicating receiving terminal to be not detected by useful signal in the data burst resource of described continuous X unit, then stop at and described follow-up data sub-frame resources carries out detection reception;
Obtain transmission id signal in the data burst resource of continuous X the unit that described transmitting terminal comprises in described mark window, wherein, if described id signal is for indicating described receiving terminal described id signal to be detected in the data burst resource of described continuous X unit, then stops at and described follow-up data sub-frame resources carries out detection reception.
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