CN101350703A - Transmission control methods and devices for communication systems - Google Patents

Transmission control methods and devices for communication systems Download PDF

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Publication number
CN101350703A
CN101350703A CNA2008101274978A CN200810127497A CN101350703A CN 101350703 A CN101350703 A CN 101350703A CN A2008101274978 A CNA2008101274978 A CN A2008101274978A CN 200810127497 A CN200810127497 A CN 200810127497A CN 101350703 A CN101350703 A CN 101350703A
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user
index signal
receive
access
receives
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CN101350703B (en
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林咨铭
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Industrial Technology Research Institute ITRI
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Industrial Technology Research Institute ITRI
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Priority claimed from US12/166,018 external-priority patent/US8799734B2/en
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Abstract

A system and method for transmission control by an access device in a wireless communication system includes steps as: receiving a first transmission data from a super ordinate device for transmission to a subscriber device of the communication system; transmitting the first transmission data to a subscriber device to generate a first access receipt indicator signal corresponding to the first transmission data; transmitting the first access receipt indicator signal to a super ordinate device, and retransmitting the first transmission data to a subscriber device if the first customer receipt indicator signal is not received; receiving the second transmission data by the access device for transmission to a subscriber device, generating a second access receipt indicator signal corresponding to a second transmission data, and transmitting the second access receipt indicator signal to a super ordinate device; retransmitting the second transmission data to a subscriber device if the second subscriber receipt indicator signal is not received.

Description

The method and apparatus of the transmission control of communication system
Technical field
The invention relates to the method and apparatus of communication system, and particularly relevant for the method and apparatus of controlling in the transmission of data communication system.
Background technology
Wireless telecommunication system allows wireless device to carry out communication under the situation that does not need wired connection.Because wireless system is integrated in the daily life, so need to support the wireless telecommunication system of multimedia service day by day, these multimedia services are speech, audio frequency, video, archives and page download or the like for example.In order to support the multimedia service of wireless device, developed various wireless telecommunication system and agreement, with the growth demand of the multimedia service of complying with the wireless telecommunications networking.
One of this kind agreement is broadband demal multitask (W-CDMA), and it is delivered by third generation Mobile Communications partnership project (3GPPTM), by the joint research of the machine-processed institute of how tame standard development.W-CDMA is that the broadcast interface of frequently taking action is opened up in a kind of broadband, and it uses direct sequence demal multitask (CDMA).
The communication of this wireless system can comprise single node (single-hop) transmission and multinode (multi-hop) transmission.In the single node wireless transmission, start node directly and destination node carry out communication.In comparison, in the multinode wireless transmission, the start node of wireless system can use one or more intermediate nodes (being sometimes referred to as via node) and carry out communication with destination node.In some system, via node can be described as relay station (relay station), and can be called transmission path with node between destination node with the combination that is connected at start node.The midsequent system can be present in the wireless network of any pattern.
Fig. 1 has multinode to transmit the schematic diagram of knowing wireless network 100 with the father-in-law of single node transmission.Wireless network 100 shown in Figure 1 is based on the standard of Institute of Electrical and Electronics Engineers (IEEE) 802.16 families.As shown in Figure 1, wireless network 100 can comprise one or more transmitters (for example base station (BS) 110), one or more relay stations (RS) 120 (comprising RS 120a, 120b and 120c), and one or more subscriber station (SS) 130 (comprising SS 130a, 130b, 130c and 130d).
In wireless network 100, start node (for example BS 110) and destination node are (for example, SS 130a, SS 130b, SS 130c, SS 130d etc.) between communication, can reach by one or more relay stations (for example, RS 120a, RS 120b, RS 120c etc.).For example, in wireless network 100, RS 120a can receive the data from BS 110, and these data are sent to another relay station (for example, RS 120b).Perhaps, RS 120a can receive from another relay station () data for example, RS 120b, and be sent to BS 110.In another example, RS 120c can receive the data from RS120b, and these data are sent to subscriber station (for example SS 130a).Perhaps, RS 120c can receive the data from subscriber station (for example SS 130a), and is sent to domination relay station (for example RS120b).These are examples of multinode transmission.In the single node transmission of wireless network 100, can directly reach the communication between start node (for example BS 110) and destination node (for example SS 130d).For example, BS 110 can directly transmit data to SS 130d, and SS 130d can directly transmit data to BS 110.
The wireless system of the wireless network 100 of a kind of for example Fig. 1 can be realized medium access control (MAC) news frame (frame) form, and it uses the standard of IEEE 802.16 families of orthogonal frequency division multiple access (OFDMA).In wireless system 100, the transmission time may be partitioned into a plurality of adjustable length son news frames: cochain (UL) news frame and following chain (DL) news frame.Generally speaking, this UL news frame can comprise a plurality of range finding passages (ranging channels), channel quality information channel (CQICH) and a plurality of UL data Cong Xun (data burst) that comprise data.
DL news frame can comprise: preorder (preamble), news frame control header (FCH), DL figure (DL-MAP), UL scheme (UL-MAP) and DL data Cong Xun zone.Preorder can be in order to provide synchronous.For example, this preorder can be in order to adjust timing off-set, frequency shift (FS) and power.FCH can comprise each news frame control information that connects, and comprises for example decoding information of SS 130.
DL figure and UL figure can be in order to the passage access of location cochain with following chain communication.That is, the catalogue of access time slot (access slot) position under this DL figure can be provided at present in the chain news frame, and UL figure can be provided at the present catalogue that chain is interrogated the access time slot position in the frame that goes up.In this DL figure, this kind catalogue can be one or more DL figure information assembly (MAP Information Element, forms MAPIE).Each MAP IE in this DL figure can comprise several parameters of single connection (that is, with being connected of single SS 130).These parameters can be in order to confirm interrogating in the frame position of data Cong Xun, the length of data Cong Xun, recipient's identity of data Cong Xun, and transmission parameter sub at present.
For example, each MAP IE can comprise: and connection ID (Connection ID, CID), the identity of the destination apparatus of its data discrimination Cong Xun (for example, SS 130a, SS 130b, SS 130c, SS 130d etc.); Following chain use at interval sign indicating number (Downlink Interval Usage Code, DIUC), sign indicating number is used in its expression down chain at interval, following chain transmission is defined by it; The OFDMA symbol offset, the skew of the OFDMA symbol that its expression data Cong Xun begins; The subchannel skew, it is represented in order to transmit the minimum pointer OFDMA subchannel of this Cong Xun.Other parameter also can be included among this MAP IE, and for example, (boosting) parameter that raises, OFDMA symbolic representation parameter, subchannel are represented parameter etc.Known MAC header (for example FCH) can be called with MAP IE and be connected the conversion and control data.
DL figure and UL figure all can follow these data Cong Xun zone.Data Cong Xun zone can comprise one or more data Cong Xun.Each data Cong Xun in the data Cong Xun zone can be according to the control pattern of corresponding connection conversion and control data by modulation and coding.Generally speaking, DL figure and UL figure can be called the packet data unit (packet data unit, PDU) or abbreviate packet information as.
The used transmission controlling mechanism of the wireless network 100 of Fig. 1 such as be automatic repeat request (Automatic Repeat Request, ARQ).By using ARQ, the device of wireless system (for example, BS 110, RS120a, 120b and 120c, and SS 130a, 130b, 130c and 130d etc.) can be designed to, when packet information is not received or receives when wrong by the purpose recipient, it can transmit packet data again.ARQ transmission controlling mechanism can use the combination of ACK, NACK and overtime (timeout) with the Data transmission transmission state.The ARQ agreement can comprise: stop and wait (Stop-And-Wait (SAW)), get back to N (Go-Back-N) and selectivity and repeat.
In the wireless system that uses ARQ transmission controlling mechanism, when receiving system received (new or transmission) again packet data, receiving system can produce and transmit ACK or NACK conveyer so far.ACK confirms index signal, and it can be included in the message or be additional to message, and can be sent to transmitter by receiver, has correctly received this transmission data with the expression receiver.NACK is the negative acknowledgment index signal, and it is included in the message or is additional to message, and can be sent to transmitter by receiver, and the transmission data that received with indication have one or more mistakes.
Fig. 2 is sender Figure 200 of the operation of (end-to-end) ARQ transmission controlling mechanism between end points.As shown in Figure 2, in the distribute type resource configuration system, in the transmission path each node can Resources allocation next node to the relay route.For example, in the distribute type resource configuration system, BS 110 can be RS 120a deploy resources, and it is denoted as the arrow between BS 110 and RS 120a.Similarly, RS 120a can be RS 120b deploy resources, and it is denoted as the arrow between RS 120a and RS 120b.In the centralized resources configuration-system, BS 110 can control information transmission all nodes to the transmission path, RS 120a for example, RS 120b, RS 120c and SS 130a are to finish resource distribution.In either case, after resource distribution was finished, BS 110 can be via intermediate node RS120a, and RS 120b and RS 120c and Data transmission are to destination node (SS 130a).In addition, BS 110 can store the copy of the data of sending in buffer.In the example of Fig. 2, this data is made up of eight (8) individual packet datas.
RS 120a can successfully receive this 8 packet datas, and the copy of storage data is to its buffer, and transmits these data to RS 120b.Yet, between RS 120a and RS 120b, may be owing to damage, interference, mistake etc. are lost 2 packet datas, so RS 120b may receive only 6 packet datas.RS 120b can transmit these 6 packet informations to RS 120c, and store transmit the copy of data to its buffer.Similarly, RS 120c can receive this 6 packet datas, transmits these 6 packet datas to SS 130a, and store transmit the copy of data to its buffer.Yet between RS 120c and SS 130a, 3 packet datas may be lost in addition, cause having only 3 packet datas successfully to be received by SS 130a.When receiving these 3 packet datas, SS 130a can transmit the ACK index signal to BS 110 along the upper link transmission path via RS 120c, RS 120b and RS 120c.The ACK index signal can inform that success receives this 3 packet datas.When BS 110 received this ACK index signal, BS 110 can remove these 3 packet datas that identified in buffer.
In case BS 110 has removed buffer, then BS 110 can prepare 3 new packet datas to transfer to SS 130a.In some cases, BS 110 can carry out communication with RS 120a, 120b and 120c, to determine the how transmission again of locator data, can make each RS 120 can receive the correct data of its most direct node in upper link direction (that is, upper node).When BS 110 has determined how to locate when transmitting again, BS 110 can then utilize the centralization resource distribution, redeploys these resources along transmission path.Perhaps, carry out the distribute type resource distribution, each node can redeploy resource to next node along transmission path (cochain or following chain) in transmission path.In either case, in case these resources are redeployed, BS 110 can transmit these 3 new packet datas to SS 130a via RS 120a.
RS 120a can receive these data and 2 packet datas being lost between RS 120a and RS 120b are added data so far, to transfer to RS 120b (that is, Data (2+3 ')) again.RS 120b can receive Data (2+3 '), transmission Data (2+3 ') to RS 120c, and stores new Data (that is, Data (3 ')) to its buffer.Similarly, RS 120c can receive Data (2+3 ') and these 3 packet datas that will be lost between RS120c and SS 130a are added into Data (2+3 '), uses generation Data (5+3 ').RS 120c can transmit Data (5+3 ') to SS 130a, and the copy of stores new (that is, Data (3 ')) to its buffer.SS 130a can receive new data and transmit data (that is, Data (5+3 ')) again, and via RS 120a, RS 120b and RS 120c and the transferring ACK index signal to BS 110.The ACK index signal that is transferred out is to inform to receive 8 packet datas (that is, ACK (5+3 ')), and wherein 3 packages are new data, the attach most importance to data of new transmission of 5 packages.When receiving the ACK index signal, BS 110 can remove its buffer.
Fig. 3 is sender Figure 30 0 of the operation of two-part ARQ transmission controlling mechanism.In the system that uses two-part ARQ transmission controlling mechanism, access node (intermediate node RS 120a for example, 120b and 120c) return the ACK index signal to transmission node (for example BS 110), whether successfully received to represent present transmission state and this transmission by access node.Access node is the intermediate node (for example, RS 120a, RS 120b, RS 120c etc.) of directly communication to destination node (for example, SS 130a, SS 130b, SS 130c, SS 130d etc.).For example, the access node corresponding to SS 130a can be RS 120c.
Be similar to Fig. 2, Fig. 3 demonstrates, BS 110 can control information transmission to all nodes of transmission path, in the centralized resources configuration-system, to carry out resource distribution.For example, about the transmission path from BS 110 to SS 130a, BS 110 can carry out resource distribution for RS 120a, RS 120b, RS 120c and SS 130a.Under another situation, in the distribute type resource configuration system, each node in this transmission path can be along transmission path (cochain or following chain) deploy resources to next node.For example, about transmission path from BS 110 to SS 130a, BS 110 can carry out from the resource distribution of BS 110 to RS 120a, RS 120a can carry out the resource distribution from RS 120a to RS120b, RS 120b can carry out the resource distribution from RS 120b to RS 120c, and RS 120c can carry out the resource distribution from RS 120c to SS 130a.In either case, in case resource distribution is finished, BS 110 can be via intermediate node RS 120a, and RS 120b and RS120c and Data transmission are to destination node (SS 130a).In addition, BS 110 can store the copy of the data of sending to buffer.In the example of Fig. 3, these data can comprise eight (8) individual packet datas.
RS 120a can successfully receive this 8 packet datas, and the copy that stores received data is to its buffer, and the transmission data are to RS 120b.RS 120b can successfully receive this 8 packet datas, and the copy that stores received data is to its buffer, and the transmission data are to RS 120c.Yet, between RS 120b and RS 120c, may lose 2 packet datas owing to damage, interference mistake etc., so RS 120c may only receive 6 packet datas.RS 120c can transmit in advance the ACK index signal to BS 110, to acknowledge receipt of this 6 packet datas.
In addition, RS 120c can transmit 6 the packet information that receives to SS 130a, and store transmit the copy of data to its buffer.Yet in the transmission between RS 120c and SS 130a, 4 packet datas may be lost in addition, to cause having only 2 packet datas successfully to be received by SS 130a.Receiving that in 2 packet datas, SS 130a can transmit the ACK index signal to RS 120c.The ACK index signal can successfully be received this 2 packet informations by SS 130a in order to inform.Receiving in the ACK that RS 120c can transmit any data that success is received by SS 130a again.For example, in Fig. 3, RS 120c can be transmitted in transmission between RS 120c and the SS 130a and 4 packet datas of loss again.
When BS 110 received ACK index signal from RS 120c, BS 110 can remove the buffer that is regarded as 6 packet datas that success receives by RS 120c.In case BS 110 has removed its buffer, then BS 110 can prepare 6 ' individual new packet data to transfer to SS 130a, together with 2 packet datas losing between RS 120b and RS 120c.In some cases, BS 110 can carry out communication with RS 120a, 120b and 120c, transmits with the localization of determination data, in order to do making each RS 120 can be from receiving correct data along the most direct node of upper link direction (that is, upper node) again.Yet in other cases, BS 110 can't carry out communication with RS 120a, 120b and 120c to be transmitted with the localization of determination data again.
When BS 110 has determined how to locate when transmitting again, in the system of centralization resource distribution, BS 110 can then redeploy these resources along transmission path.Perhaps, in the system of distribute type resource distribution, each node can redeploy resource to next node along transmission path (cochain or following chain) in transmission path.In either case, in case these resources are redeployed, BS 110 can transmit Data (2+6 ') to SS 130a via RS 120a.RS 120a can successfully receive Data (2+6 '), and the transmission Data that receives (2+6 ') is to RS 120b, and the copy of storage Data (2+6 ') is in its buffer.RS 120b can successfully receive Data (2+6 '), and the transmission Data that receives (2+6 ') is to RS 120c, and the copy of storage Data (2+6 ') is in its buffer.Similarly, RS 120c can receive Data (2+6 '), and the transmission Data that receives (2+6 ') is to RS 120b, and the copy of storage Data (2+6 ') is in its buffer.In addition, RS 120c can transmit the ACK index signal to BS 110, to acknowledge receipt of the data that successfully received by RS 120c (that is, ACK{2+6 ' }).
SS 130a can receive new data and transmit data (that is, Data (2+6 ')) again, and the transferring ACK index signal is to RS 130c.The ACK index signal can confirm successfully to receive the individual packet information of 2+6 ' (that is, ACK (2+6 ')), and wherein 6 ' individual package is a new data, 2 packages new biography transmission of data of attaching most importance to.Receiving that in the ACK index signal, RS 130c can remove new data and the legacy data in its buffer, wherein these new data data and legacy data are to be designated as successfully received data by SS 130a.
Because the hop count of transmission path increases, compared to the single node wireless network, the error detection of multinode wireless network and the effect of correction are even more important.Therefore, in the multinode transmission, traditional error detection may cause cost significantly to increase with correction, the long delay and the wasting of resources.
Described enforcement demonstration example is in order to overcome the problems referred to above.
Summary of the invention
The object of the present invention is to provide a kind of method and apparatus of transmission control of communication system,
In an embodiment, the invention relates to a kind of method of in a wireless telecommunication system, utilizing the transmission control of an access device.Wireless telecommunication system comprises a plurality of receiving systems.The method comprises: receive the first transmission data for transferring to a user's set from an epigyny device, wherein a little therewith receiving systems of access device carry out communication, and the user's set one of a little receiving systems for this reason; Transmit first and transfer data to user's set; Utilize access device to produce one first access and receive index signal, it is corresponding to the first transmission data; Transmit first access and receive index signal to upper device; If it is to receive index signal by one first user that user's set receives that access device does not receive the indication first transmission data from user's set, one or more parts of then transmitting the first transmission data again are to user's set; Utilize access device to receive the second transmission data for transferring to user's set; Utilize access device to produce one second access and receive index signal, it is corresponding to the second transmission data; Transmit second access and receive index signal to upper device; And if access device receives the indication second transmission data system from user's set and receive index signal by one second user that user's set receives, one or more parts of then transmitting the second transmission data again are to user's set.
Implement to the invention relates to a kind of wireless communication station in the demonstration example in another, it is in order to do wireless telecommunications in a wireless telecommunication system.Wireless telecommunication system comprises a plurality of receiving systems.Wireless communication station comprises: at least one holder, in order to the storage data and instruction; And at least one processor, it is designed in order to the access holder.When carrying out this a little instruction, at least one processor be designed in order to: receive the first transmission data for transferring to a user's set from an epigyny device, wherein a little therewith receiving systems of wireless communication station carry out communication, and user's set is the one of these a little receiving systems; Transmission first transfers data to user's set; Produce one first access and receive index signal, it is corresponding to the first transmission data; Transmit first access and receive index signal to upper device; If wireless communication station does not receive the indication first transmission data by one first user's index signal that user's set receives from user's set, one or more parts of then transmitting the first transmission data again are to user's set; Receive the second transmission data for transferring to user's set; Produce one second access and receive index signal, it is corresponding to the second transmission data; Transmit second access and receive index signal to upper device; And if wireless communication station receives the indication second transmission data from user's set and receive index signal by one second user that user's set receives, one or more parts of then transmitting the second transmission data again are to user's set.
In an embodiment, the invention relates to a kind of method of utilizing the transmission control of access device in a wireless telecommunication system, wireless telecommunication system comprises a plurality of receiving systems.The method comprises: receive the transmission data for transferring to a user's set from an epigyny device, wherein a little therewith receiving systems of access device carry out communication, and the user's set one of a little receiving systems for this reason; Transmission transfers data to user's set; And producing access reception index signal, it is corresponding to the transmission data.If access device receives an initial user from user's set and receives index signal, then: receive index signal with initial user and comprise access reception index signal, and the transmission access receives index signal and the user receives index signal to upper device.If access device does not receive initial user from user's set and receives index signal, then: the transmission access receives index signal to upper device, and transmission is transmitted at least a portion of data to user's set again.
Implement to the invention relates to a kind of wireless communication apparatus in the demonstration example in another, it is in order to do wireless telecommunications in a wireless telecommunication system.Wireless telecommunication system comprises a plurality of receiving systems.Wireless communication apparatus comprises: at least one holder, in order to the storage data and instruction; And at least one processor, it is designed in order to the access holder.When carrying out this a little instruction, at least one processor be designed in order to: receive the transmission data for transferring to a user's set from an epigyny device, wherein a little therewith receiving systems of wireless communication apparatus carry out communication, and the user's set one of a little receiving systems for this reason; Transfer data to user's set; And producing access reception index signal, it is corresponding to the transmission data.If wireless communication apparatus receives an initial user from user's set and receives index signal, then: receive index signal with initial user and comprise access reception index signal, and the transmission access receives index signal and the user receives index signal to upper device; And if wireless communication apparatus is from user's set reception initial user reception index signal, then: transmit access and receive index signal to upper device, at least a portion that reaches again the transmission data is to user's set.
Description of drawings
Fig. 1 is the calcspar of wireless telecommunication system;
The sender figure that Fig. 2 uses for a kind of known technology wireless telecommunication system that uses ACK message between end points to send;
Fig. 3 is a kind of sender figure that uses the known technology wireless telecommunication system of two-part ARQ mechanism;
Fig. 4 is the calcspar according to the wireless telecommunication system of an enforcement demonstration example of the present invention;
Fig. 5 a is the calcspar according to the radio network controller (RNC) of an enforcement demonstration example of the present invention;
Fig. 5 b is the calcspar according to the base station (BS) of an enforcement demonstration example of the present invention;
Fig. 5 c is the calcspar according to the relay station (RS) of an enforcement demonstration example of the present invention;
Fig. 5 d is the calcspar according to the subscriber station (SS) of an enforcement demonstration example of the present invention;
Fig. 6 is the flow chart of handling according to of the present invention one packet data of implementing demonstration example;
Fig. 7 implements the error detection of demonstration example and the flow chart of correction according to of the present invention one;
Fig. 8 implements the error detection of demonstration example and the flow chart of correction according to of the present invention one;
Fig. 9 implements the two core dumpeds detecting of demonstration example and the demonstration sender figure that revises according to of the present invention one;
Figure 10 implements the two core dumpeds detecting of demonstration example and the demonstration sender figure that revises according to of the present invention one;
Figure 11 implements the two core dumpeds detecting of demonstration example and the demonstration sender figure that revises according to of the present invention one;
Figure 12 implements the two core dumpeds detecting of demonstration example and the demonstration sender figure that revises according to of the present invention one;
Figure 13 implements the two core dumpeds detecting of demonstration example and the demonstration sender figure that revises according to of the present invention one;
Figure 14 implements the demonstration sender figure of the ACK index signal with RACK index signal of demonstration example for foundation of the present invention; And
Figure 15 is the demonstration calcspar according to the RACK index signal pattern of an enforcement demonstration example of the present invention.
Primary clustering symbol description in the accompanying drawing:
100: wireless network/wireless system
110: base station (BS)
120,120a, 120b, 120c: relay station (RS)
130,130a, 130b, 130c, 130d: subscriber station (SS)
200: sender figure
300: sender figure
400: wireless telecommunication system
420: radio network controller (RNC)
421: CPU (CPU)
422: random access memory (RAM)
423: read-only memory (ROM)
424: holder
425: database
The 426:I/O device
427: the interface
428: antenna
430: base station (BS)
431: CPU (CPU)
432: random access memory (RAM)
433: read-only memory (ROM)
434: holder
The 436:I/O device
437: the interface
438: antenna
440,440a, 440b, 440c: relay station (RS)
441: CPU (CPU)
442: random access memory (RAM)
443: read-only memory (ROM)
444: holder
445: database
The 446:I/O device
447: the interface
448: antenna
450,450a, 450b, 450c, 450d: subscriber station (SS)
451: CPU (CPU)
452: random access memory (RAM)
453: read-only memory (ROM)
454: holder
455: database
The 456:I/O device
457: the interface
458: antenna
600: flow chart
605-630: method step
700: flow chart
705-725: method step
800: flow chart
805-810: method step
900: sender figure
1000: sender figure
1100: sender figure
1200: sender figure
1300: sender figure
Embodiment
For foregoing of the present invention can be become apparent, below especially exemplified by a preferred embodiment, and conjunction with figs. elaborates.
Fig. 4 is the calcspar of wireless telecommunication system 400.The wireless telecommunication system 400 of Fig. 4 may be for example based on the standard of IEEE802.16 family.As shown in Figure 4, wireless telecommunication system 400 can comprise one or more radio network controller (RNC, radio network controller) 420 (for example RNC 420), one or more base stations (BS) 430 (for example BS 430), one or more relay stations (RS) 440 (for example RS 440a, RS 440b and RS 440c), and one or more subscriber station (SS) 450 (for example SS 450a, SS 450b, SS 450c and SS 450d).
RNC 420 can be the known communication device of any pattern, and it can operate in wireless telecommunication system 400.RNC 420 can be responsible for resource management, mobility management, encryption in wireless telecommunication system 400 etc.In addition, RNC 420 can be responsible for the control of one or more BS 430.
Fig. 5 a is the calcspar according to the RNC 420 of an enforcement demonstration example of the present invention.Shown in Fig. 5 a, each RNC 420 may comprise one or more following assemblies: CPU (CPU) 421, and it is in order to carry out several computer program instructions to finish various processing and method; Random access memory (RAM) 422 and read-only memory (ROM) 423, it is in order to access information and computer program instructions; Holder 424 is in order to storage data and information; Plurality of data storehouse 425 is in order to store form, detail list (list) or other data structure; A plurality of I/O devices 426; A plurality of interfaces 427; A plurality of antennas 428 etc.These assemblies are well known to those skilled in the art, and its details is omitted at this.
BS 430 can be the communication device of any pattern, it is in order in wireless telecommunication system 400, and 450 of one or more RS 440 and/or SS carry out Data Receiving and/or data send and/or communication each other, and wherein having much is that those skilled in the art are known.In certain embodiments, BS430 can also be called Node B (Node-B), base transceiver device system (base transceiver system, BTS), access point (access point) etc.Communication between BS 430 and RNC 420 can be wired and/or wireless connections.Communication between BS 430 and RS 440 may be wireless.Similarly, the communication between BS 430 and SS 450 may be wireless.In an embodiment, in its broadcasting/range of receiving, BS 430 can carry out wireless telecommunications with more than one RS 440 and/or more than one SS 450.Broadcasting area may be owing to power, position and interference (physics, electrical characteristic etc.) change.
Fig. 5 b is the calcspar according to the BS 430 of an enforcement demonstration example of the present invention.Shown in Fig. 5 b, each BS 430 may comprise one or more following assemblies: at least one CPU (CPU) 431, and it is in order to carry out several computer program instructions to finish various processing and method; Random access memory (RAM) 432 and read-only memory (ROM) 433, it is in order to access information and computer program instructions; Holder 434 is in order to storage data and information; Plurality of data storehouse 435 is in order to store form, detail list or other data structure; A plurality of I/O devices 436; A plurality of interfaces 437; A plurality of antennas 438 etc.These assemblies are well known to those skilled in the art, and its details is omitted at this.
RS 440 can be the known calculation element of any pattern, and it is in order in wireless telecommunication system 400, and BS 430, one or more other RS 440 and/or 450 of one or more SS carry out wireless data transmit-receive.RS 440 and BS 430, one or more other RS 440, and the communication between one or more SS 450 may be wireless telecommunications.Implement in the demonstration example one, in its broadcasting/range of receiving, RS 440 can carry out wireless telecommunications with BS 430, one or more RS 440 and/or one or more SS 450.Broadcasting area may be owing to power, position and interference (physics, electrical characteristic etc.) change.
Fig. 5 c is the calcspar according to the RS 440 of an enforcement demonstration example of the present invention.Shown in Fig. 5 c, each RS 440 may comprise one or more following assemblies: at least one CPU (CPU) 441, and it is in order to carry out several computer program instructions to finish various processing and method; Random access memory (RAM) 442 and read-only memory (ROM) 443, it is in order to access information and computer program instructions; Holder 444 is in order to storage data and information; Plurality of data storehouse 445 is in order to store form, detail list or other data structure; A plurality of I/O devices 446; A plurality of interfaces 447; A plurality of antennas 448 etc.These assemblies are well known to those skilled in the art, and its details is omitted at this.
SS 450 can be the calculation element of any pattern, and it is in wireless telecommunication system 400, and BS 430 and/or 440 of one or more RS carry out wireless transfer of data and/or reception.SS 450 may comprise for example server, client, desktop PC, laptop computer, network computer, work station, PDA(Personal Digital Assistant), flat computer, scanner, telephone device, calling set, camera, music apparatus etc.In addition, SS 450 may comprise the one or more wireless sensers in the wireless sensor network, and it is in order to utilize centralized and/or communication is carried out in the distribute type communication.In an embodiment, SS 450 may be an action calculation element.In another embodiment, SS450 may be the fixedly calculation element of operation in mobile environment (for example bus, train, aircraft, ship, automobile etc.).
Fig. 5 d is the calcspar according to the SS 450 of an enforcement demonstration example of the present invention.Shown in Fig. 5 d, each SS 450 may comprise one or more following assemblies: at least one CPU (CPU) 451, and it is in order to carry out several computer program instructions to finish various processing and method; Random access memory (RAM) 452 and read-only memory (ROM) 453, it is in order to access and store information and computer program instructions; Holder 454 is in order to storage data and information; Plurality of data storehouse 455 is in order to store form, detail list or other data structure; A plurality of I/O devices 456; A plurality of interfaces 457; A plurality of antennas 458 etc.These assemblies are well known to those skilled in the art, and its details is omitted at this.
In addition, each node in wireless telecommunication system 400 (for example BS 430, RS 440a, 440b and 440c, and SS 450a, 450b, 450c and 450d) can comprise one or more timers, is called as " relaying is the transmit timing device again " in this.In an embodiment, these relayings again the transmit timing device may reflect data vital values (lifetiime).Relaying transmit timing device again may comprise any combination of hardware and/or software.In addition, relaying transmit timing device again can be by its internal mechanism, with relevant for transfer of data.That is the setting of transmit timing device may be according to the set two-way time to specific objective node (for example SS 450a, SS 450b, SS 450c, SS 450d etc.) again for each relaying.
For example, time of setting of transmit timing device will comprise the overall transmission time in the round-trip transmission path of RS440a, RS 440b, RS 440c and SS 450a to the relaying of RS 440a again.Similarly, the relaying of RS 440b again time of setting of transmit timing device will comprise the overall transmission time in the round-trip transmission path of RS 440b, RS 440c and SS 450a, and the relaying of RS 440c time of setting of transmit timing device will comprise the overall transmission time in the round-trip transmission path of RS 440c and SS 450a again.Except round-trip transmission the time, overall transmission time also can comprise one or more timing off-sets, for example data processing, transmission node and receiving node transition gap (transition gap) (for example Tx/Rx), extra part transmission time etc. again.In an embodiment, this overall transmission time T TotalMay be defined by following equation:
T total＝T Round_Trip+Δt，(1)
Wherein:
T Round_TripBe the round-trip transmission time between transmission node and the destination node; And
Δ t comprises sequential skew.
In an embodiment, the correlation values of transmit timing device can be definite during connecting setting again for each relaying, and therefore can set the relaying numerical value of transmit timing device again.In other embodiment, when determining one or more transmission conditions, and/or when changing one or more transmission conditions, each relaying correlation values of transmit timing device again can be determined during network entry (network entry).For example, login to the network (for example wireless telecommunication system 400) at RS 440c, the relaying that can determine RS 440c is the correlation values of transmit timing device (for example, T again Round_TripDeng), and can set the relaying total value of transmit timing device (for example, T again TotalDeng).
In this disclosed System and method for, have three ARQ patterns.The one ARQ pattern is called the end points inter mode.That is these a little ARQ transmission controlling mechanisms operate on the other end from an end of a certain transmission path (for example BS 430 or SS 450) to same transmission path (for example SS 450 or BS 430).The 2nd ARQ pattern is called two sections ARQ patterns.Two sections ARQ patterns are that the ARQ transmission controlling mechanism in a kind of two sections ARQ patterns operates on the pattern between " relaying ARQ section " and " access ARQ section ", relaying ARQ section be between BS 430 and the access RS 440 section (that is, this RS 440 provides service to SS 450 in transmission path), and access ARQ section is the section of 450 of access RS 440 and (being subjected to its service) SS.The 3rd ARQ pattern is called by node ARQ.Operate on two adjacent nodes in the same transmission path by node ARQ transmission controlling mechanism.For example, referring to Fig. 4, operate on by node ARQ: between BS 430 and the RS 440a, between RS 440a and the RS 440b, between RS 440b and the RS 440c and between RS 440c and the SS 450a.
In certain embodiments, two sections ARQ patterns may be adapted at tunnel type and non-tunnel type transmission (tunnel and non-tunnel forwarding).May be adapted in the non-tunnel type transmission by node ARQ pattern, and it is suitable for using the distribute type resource distribution as RS 440.The ARQ pattern configuration and setting of RS 440 can be executed in during RS 440 network entry.
Fig. 6 shows the flow chart of data processing Figure 60 0 in the wireless telecommunication system (for example wireless telecommunication system 400) of the embodiment of the invention.Particularly, Fig. 6 shows that RS 440 receives the processing of packet data from upper (superordinate) RS440, or BS 430 receives packet datas and delivers to the processing of the next (subordinate) RS 440 or SS 450.At this, " the next " is in order to the relative position of a node to another node to be described with " upper ".The next node is to be the node in the following chain stream of waiting to discuss between node and the receiving node SS 450.Upper node is to be the node in the cochain stream of waiting to discuss between node and the BS430.
As shown in Figure 6, RS 440 may receive the packet data (step 605) from BS 430 or upper RS 440.Use control information, RS 440 may determine whether received packet data will transfer to access RS 440 (for example RS 440c) or SS 450 (step 610), wherein control information comprise receive packet data header information in the packet data and/or figure information assembly (informationelement, IE).If this packet data does not transfer to access RS 440 (for example RS 440c) or SS450 (step 610 denys), RS 440 may handle and give up the packet data (step 620) of sign like this.In an embodiment, this packet data may be contained in and receive in the data packet.Perhaps, this packet data may be the data before sent or follow-up data packet.
Yet if this packet data will be transferred to access RS 440 (for example RS 440c) or SS 450 (step 610 is), RS 440 may determine whether the data that receive comprise one or more data packets (step 615) of transmission again.Again Chuan Shu data packet means, has before transferred to RS 440 but because transmission fault or the wrong data packet that transmits again of needing.Again Chuan Shu packet data may be included in the data packet with new data, maybe may be sent in only comprising the data packet that transmits data again.In an embodiment, the packet data of transmission may be before by the data index signal (indicator) or the identification signal (identifier) of the buffer of RS 440 that RS 440 receives and is stored in again.Whether RS 440 may use the resource allocation information of before having been sent by control station (for example BS 430 or upper RS440), serve as transmission packet data or for transmitting packet data again to determine this packet data.If comprise the single packet data of transmission again in this data packet, RS440 will determine received data to comprise to transmit packet data again.
If the data that RS 440 decisions receive comprise one or more data packet (steps 615 of transmission again, be), then RS 440 may transfer to access RS 440 (for example, RS 440c) or SS 450 (step 625) together with the new data packet in the received data again with this packet data.In an embodiment, RS 440 may be from obtaining the packet data that will transmit again from its buffer, and the resource allocation that uses these data to transmit again transmits this packet data again.If this packet data is for transmitting data again, then RS 440 may receive only the control data from upper BS 430 or RS 440.That is received data may only comprise flow and/or application data, and do not have user's data.Do not transmit data (step 615 denys) again if this packet data does not comprise, RS 440 may be with the received packet data transmission that comprises control information and/or user's data to access RS 440 (for example, RS 440c) or SS 450 (step 630).
Though be not shown among Fig. 6, if RS 440 is provided with relaying transmit timing device again, when transmitting (step 630) and/or transmitting (step 625) again, the relaying that RS 440 the sets value of transmit timing device again can reflect the RS 440 total round-trip transmission time T between the datum target node therewith Total
Fig. 7 shows the flow chart of data processing Figure 70 0 according to the wireless telecommunication system (for example wireless telecommunication system 400) of an enforcement demonstration example of the present invention.Particularly, Fig. 7 shows that RS 440 receives ACK (affirmation) and NACK (negative acknowledgment) index signal from SS 450 or RS 440, to transfer to upper RS 440 or BS 430.
As shown in Figure 7, RS 440 may receive ACK or the NACK index signal (step 705) of self-access RS 440 (for example RS 440c) or SS 450.In the data packet of confirming to be sent by BS 430 which these ACK or NACK index signal may successfully be received by access RS 440 (for example RS440c) or SS 450 in order to.For example, if BS 430 transmits 8 packet datas (for example data packet 1-8), but access RS 440 (for example RS 440c) or SS 450a receive only 6 data packages (for example data packet 1,3,4,5,6 and 8), and the ACK index signal may be which that successfully receive (for example data packet 1,3,4,5,6 and 8) and/or these 8 data packages is not successfully to receive (for example data packet 2 and 7) in order to confirm in these 8 data packages which.Whether RS440 successfully receives the identification signal of packet data may directly and/or indirectly be finished.That is ACK and/or NACK index signal possibility by confirming received packet data and/or the packet data that does not receive, are directly confirmed received packet data; Or by distinguishing that a certain person who successfully receives packet data provides information, with indirect acknowledgment.
After receiving ACK or NACK index signal, RS 440 may relatively be contained in information and the buffer status information (step 710) in ACK or the NACK index signal.In one embodiment, RS 440 may compare ACK or NACK index signal information and buffer information, with the packet data of confirming that destination node (that is, SS 450a) receives.Based on this relatively, RS 440 whether need may determine a RACK index signal (step 715).If (step 715, not), then RS 440 may transfer to upper RS 440 or BS 430 with ACK or the NACK index signal that receives not need the RACK index signal.
Yet, RACK index signal (step 715 is) if desired, RS 440 may revise received index signal, to comprise RACK index signal (step 720).For example, the RACK index signal that RS440 comprised has received ACK or NACK index signal, and ACK or NACK index signal are transferred to upper RS440 or BS 430 (step 725) with the RACK index signal that is comprised.Perhaps, RS 440 may revise header information and successfully be received and transferred to the packet data of SS 450 by upper BS 430 or RS 440 to distinguish RS 440.
Fig. 8 shows according to the flow chart of data processing Figure 80 0 of enforcement demonstration example in wireless telecommunication system (for example wireless telecommunication system 400) of the present invention.Particularly, Fig. 8 shows, when ACK or NACK index signal not when relevant relaying is received by RS 440 before the transmit timing device expires again, the situation of the generation RACK index signal of RS440.
As shown in Figure 8, if this relaying is transmit timing device expired before RS 440 receives ACK or NACK index signal (step 805) again, then RS 440 may produce the RACK index signal automatically, and the RACK index signal that is produced is sent to upper RS 440 or BS 430 (step 810).When RS 440 produces the RACK index signals automatically, but it is not when receiving from the ACK of SS 450 or NACK index signal, and the information that transfers to upper RS 440 or BS 430 can't comprise ACK or NACK index signal.The substitute is, information will only comprise the RACK information of RS 440.
Fig. 9 implements the error detection of demonstration example and sender Figure 90 0 of correction mechanism according to of the present invention one.Particularly, Fig. 9 discloses a kind of embodiment of two sections ARQ, and wherein communication is to result from two sections: at transmitter (for example, BS 430) with access node (for example, RS 440c) between, and (for example at access node, RS 440c) with user's set (for example, SS 450a) between.In Fig. 9, the RACK index signal may be transmitted in transmission path relaying ARQ section (that is, between transmitter and access node), and ACK and/or NACK index signal may be transmitted in the access ARQ section (that is, between access node and receiving system) of transmission path.Clearer and more definite, in Fig. 9, ACK and/or NACK index signal may be sent to BS 430 from SS 450a, and the RACK index signal may be sent to BS 430 from RS 440c.In addition, in the system of the sender mechanism that adopts Fig. 9, can use distribute type or centralized resources to dispose and carry out resource distribution.
As shown in Figure 9, but BS 430 control information transmissions to all nodes in set transmission path, for example RS 440a, RS 440b, RS 440c and SS 450a are in order to carry out resource distribution (that is, centralized resources configuration).After resource distribution was done, BS 430 can transmit packet data to destination node (for example RS 440c or SS 450a) via one or more intermediate nodes (for example RS 440a, RS 440b and RS 440c).In addition, BS 430 can store in copy to a buffer of sending packet data.In the example of Fig. 9, packet data be by 8 data packages (that is, Data (8)) form.
RS 440a can successfully receive Data (8), and the copy that stores packet data is to its buffer, and the transmission packet data is to RS 440b.Similarly, RS 440b can successfully receive Data (8), and the copy that stores packet data is to its buffer, and the transmission packet data is to RS 440c.Yet between the transmission period of RS440b to RS 440c, 2 packet datas may be owing to damage, interference, mistake etc. be lost, and RS 440c may receive only 6 packet datas (that is, Data (6)).Receiving in the Data (6), RS 440c can produce a RACK index signal (that is, RACK{6}), and transmit the RACK index signal that produced to its upper node R S 440b.The RACK index signal that is produced can confirm 8 data packages that BS 430 is sent which be successfully to receive by RS 440c.RACK{6} may transfer to RS 440a from RS 440b along the upper link transmission path, then to BS430.
Except producing and transmit the RACK index signal, RS 440c also can pass on the packet data that received (that is, Data (6)) to SS 450a.Yet between RS 440c and SS 450a, in addition 4 packet datas may be lost, and cause having only 2 packet datas (that is, Data (2)) successfully to be received by SS 450a.Receiving in the Data (2) that SS 450a can produce and transmit ACK index signal (that is, ACK (2)) to RS 440c, to confirm successfully received 2 packet datas.As above in conjunction with the explanation of Fig. 6, RS 440c can relatively contain the information of ACK index signal and the data that were stored in its buffer in the past.Based on this relatively, RS 440c can transfer to SS 450a again with any data that successfully do not received by SS 450a.For example, as shown in Figure 9, RS 440c can be transmitted in 4 packet datas losing between RS 440c and the SS 450a again.Also as shown in Figure 9, SS 450a can successfully receive 4 packet datas.Therefore, SS 450a can produce and transmit an ACK index signal (that is, ACK (4)) and to RS 440c, successfully receive data to indicate it.
When RS 440c transmits any packet data that is lost between RS 440c and the SS 450a again, BS 430 can receive the RACK index signal sent from RS 440c (that is, RACK{6}).BS 430 decodable code RACK index signals are determining to the transmission state of the packet data of RS 440c, and based on decoding, BS 430 can remove its buffer packet data that is successfully received by RS 440c.BS 430 can prepare new packet data transferring to SS 450a via RS 440c, and new packet data is sent to RS 440c together with any packet data for the treatment of to transmit again.For example, BS 430 can remove 6 Datagrams for successfully being received by RS 440c that are shown in the RACK index signal, and prepares 6 ' individual new data packet for transmission.In addition, BS 430 can redeploy resource along transmission path.
In case these resources are redeployed, BS 430 can transmit the data packet (that is, Data (2+6 ')) of new and transmission again to RS 440a.RS 440a can successfully receive Data (2+6 '), and the copy that stores packet data is to its buffer, and transmits packet data to RS 440b.Similarly, RS 440b can successfully receive Data (2+6 '), and the copy that stores packet data and transmits packet data to RS 440c to its buffer.Receiving in the Data (2+6 ') that RS 440c can produce a RACK index signal (that is, RACK{2+6 ' }), and transmitting the RACK index signal that produced to its upper node R S 440b.The RACK index signal that is produced can be confirmed the individual data package of 2+6 ' being sent and successfully received by RS 440c by BS 430.The RACK index signal that is produced (that is, RACK{2+6 ' }) may transfer to RS 440a from RS 440b along the upper link transmission path, then to BS430.
Except producing and transmit the RACK index signal, RS 440c also can pass on the packet data that received (that is, Data (2+6 ')) to SS 450a.Receiving that in the individual packet data of 2+6 ', SS 450a can transmit an ACK index signal to RS 440c, to confirm the individual packet data of successfully received 2+6 '.As above in conjunction with the explanation of Fig. 6, RS 440c can relatively contain the information of ACK index signal and the data that were stored in its buffer in the past.Based on this relatively, RS 440c can transfer to SS 450a again with any data that successfully do not received by SS 450a.Yet as shown in Figure 9, SS 450a successfully receives the individual packet data of 2+6 '.
Though Fig. 9 shows the transmission that the ACK index signal begins from SS 450a, SS 450a can transmit the ACK and/or the NACK index signal of any combination.Under a situation, error detection will be proceeded with correction, as mentioned above.Again, though sender Figure 90 0 is presented in the single transmission path enforcement demonstration example of using three RS 440, people are contemplated to the number of the RS 440 in a transmission path can be greater or less than shown number.In addition, though be not shown among Fig. 9, between the transmission period of new data and at again between transmission period of data, also can use relaying transmit timing device again.
Figure 10 implements the error detection of demonstration example and sender Figure 100 0 of correction mechanism according to of the present invention one.Particularly, Figure 10 shows a kind of embodiment of two sections ARQ, and wherein communication is to result from two sections: at transmitter (for example, BS 430) with access node (for example, RS 440c) between, and (for example at access node, RS 440c) with user's set (for example, SS 450a) between.In Figure 10, the RACK index signal may be transmitted in transmission path relaying ARQ section (that is, between transmitter and access node), and ACK and/or NACK index signal may be transmitted in the access ARQ section (that is, between access node and receiving system) of transmission path.Clearer and more definite, in Figure 10, ACK and/or NACK index signal may be sent to BS 430 from SS 450a, and the RACK index signal may be sent to BS 430 from RS 440c.In addition, the scheme that Figure 10 shows is RS 440c generation and transmits a RACK index signal to BS 430 that RS 440c receives an ACK index signal from SS 450a simultaneously.
In the sender figure of Figure 10, resource distribution can cooperate the explanation that Fig. 9 does and proceed.After finishing resource distribution, BS 430 can transmit packet data to destination node (for example SS 450a) via one or more intermediate nodes (for example, RS440a, RS 440b and RS 440c).In addition, BS 430 can store copy to a buffer of sending packet data.In the example of Figure 10, packet data system is made up of 8 data packages (that is, Data (8)).
RS 440a can successfully receive Data (8), and the copy that stores packet data is to its buffer, and the packet data that transmission is received is to RS 440b.Similarly, RS 440b can successfully receive Data (8), and the copy that stores packet data is to its buffer, and the packet data that transmission is received is to RS 440c.Yet between the transmission period of RS 440b to RS 440c, 2 packet datas may disturb owing to damage, mistake etc. and losing.Therefore, RS 440c may receive only 6 packet datas (that is, Data (6)).Receiving Data (6) afterwards, RS 440c can transmit Data (6) to SS 450a, and store transmit the copy of packet data to its buffer.
Between RS 440c and SS 450a, in addition 4 packet datas may be lost, and cause having only 2 packet datas (that is, Data (2)) successfully to be received by SS 450a.Receiving in the Data (2) that SS 450a can transmit an ACK index signal (that is, ACK (2)) to RS 440c, to confirm successfully received data packet.Receiving in the ACK index signal (that is ACK (2)), RS 440c can produce a RACK index signal (that is, RACK{6}).The RACK index signal that is produced can confirm 8 data packages that BS 430 is sent which be successfully to receive by RS 440c.The RACK index signal that RS 440c can utilize received ACK index signal (that is, ACK (2)) to comprise to be produced (that is, RACK{6}), and both being transferred to RS 440b from RS 440c along the upper link transmission path, RS 440a is then to BS 430.
Except producing and transmit the RACK index signal, RS 440c also can attempt being transmitted in again any packet data of losing between RS 440c and the SS 450a.As above in conjunction with the explanation of Fig. 6, RS440c can relatively be contained in the information of ACK index signal and the packet data that was stored in its buffer in the past.In other embodiment, ACK index signal information that RS 440c can be more received and the data that stored in the past are to determine the quantity and/or the identification of the data that SS 450a is received.In other embodiment, RS 440c can only check received ACK index signal information.
Based on this relatively, RS 440c can transfer to SS 450a again with any data that successfully do not received by SS 450a.For example, as shown in figure 10, RS 440c can be transmitted in 4 packet datas losing between RS 440c and the SS 450a (that is, Data (4)) again.In this, yet SS 450a may receive only 4 wherein 3 of data packets of transmission again (that is, Data (3)).Therefore, SS 450a can produce and transmit an ACK index signal confirms successfully to be received by SS 450a to RS 440c 3 data packets of transmission (that is, ACK (3)) again.When RS 440c receive the ACK index signal (that is, ACK (3)) time, RS 440c can compare at present received ACK index signal information (that is, ACK (3)) with in the past received ACK index signal information (that is, ACK (2)), obtaining an ACK index signal, it confirms successfully the quantity and/or the identification of the data that received by SS 450a.In other embodiment, RS 440c can only check received ACK index signal information.In addition, RS 440c can be transmitted in 1 packet data losing between RS 440c and the SS 450a (that is, Data (1)) again.
Receiving successfully in 1 Datagram (that is, Data (1)) that SS 450a can produce an ACK index signal (that is, ACK (1)), and transmitting the ACK index signal that produced to RS 440c.RS 440c can compare at present received ACK index signal information (that is, ACK (1)) with in the past received ACK index signal information (that is, ACK (5)), obtaining an ACK index signal of upgrading, it confirms successfully the quantity and/or the identification of the data that received by SS 450a.In other embodiment, RS 440c can only check received ACK index signal information.In this example, the ACK index signal can be confirmed 6 data packages sending and successfully received by SS 450a from RS 440c.
When RS 440c was transmitted in any packet data of losing between RS 440c and the SS 450a again, BS 430 can receive ACK and the RACK index signal of sending from RS 440c.BS 430 decodable code ACK and RACK index signal are with the transmission state of the packet data of the access ARQ section of decision relaying ARQ section of transmission path and transmission path.Separate Code based on this, BS 430 can remove the packet data that is successfully received by SS 450a from its buffer.BS 430 can prepare new packet data transferring to SS 450a via RS 440c, and transmit new packet data and any packet data for the treatment of to transmit again to RS 440c.For example, BS 430 can remove 2 Datagrams for successfully being received by SS 450a that are shown in the ACK index signal, and prepares 2 ' individual new data packet for transmission.Though show, but can be disposed again, as above about the explanation of Fig. 9 along the resource of transmission path.
In case these resources are redeployed, BS 430 can transmit the data packet (that is, Data (2+2 ')) of new and transmission again to RS 440a.RS 440a can successfully receive Data (2+2 '), and the copy that stores packet data is to its buffer, and transmits packet data to RS 440b.Similarly, RS 440b can successfully receive Data (2+2 '), and the copy that stores packet data and transmits packet data to RS 440c to its buffer.Receiving in the individual packet data of 2+2 ' that RS 440c can pass on the packet data that received to SS 450a.Receiving that in the Data (2+2 '), SS 450a can transmit an ACK index signal to RS 440c, to confirm the individual packet data of successfully received 2+2 ' (that is, ACK (2+2 ')).As above in conjunction with the explanation of Fig. 6, RS 440c can relatively contain the information (that is, ACK (2+2 ')) and the data that were stored in its buffer in the past of ACK index signal.Based on the comparison, RS 440c can transfer to SS 450a again with any data that successfully do not received by SS 450a.In this, SS450a successfully receives Data (2+2 '), and the ACK index signal can be represented such situation.
RS 440c can compare at present received ACK index signal information (that is, ACK (2+2 ')) and former received ACK index signal information, with the quantity of the data confirming successfully to be received and/or identification (that is, ACK (8+2 ')) by SS 450a.In this example, 8 initial data packages that the ACK index signal can be confirmed successfully to be received by SS 450a and 2 ' individual new data package.In addition, RS 440c can produce a RACK index signal (that is, RACK{2+2 ' }), confirms the 2+2 ' data packet that is successfully received by RS 440c.Received ACK index signal before the RACK index signal that is produced (that is, RACK{2+2 ' }) can include (that is, ACK (8+2 ')), and send 440a from RS 440b to RS along the upper link transmission path, then to BS 430.
Though Figure 10 shows the transmission that the ACK index signal begins from SS 450a, SS 450a can transmit the ACK and/or the NACK index signal of any combination.Under a situation, error detection will be proceeded with correction, as mentioned above.Again, though sender Figure 100 0 is presented in the single transmission path enforcement demonstration example of using three RS 440, people are contemplated to the number of the RS 440 in a transmission path can be greater or less than shown number.In addition, though be not shown among Figure 10, between the transmission period of new data and at again between transmission period of data, also can use relaying transmit timing device again.
Figure 11 implements the error detection of demonstration example and sender Figure 110 0 of correction mechanism according to of the present invention one.Particularly, Figure 11 shows a kind of embodiment of two sections ARQ, and wherein communication is to result from two sections: at transmitter (for example, BS 430) with access node (for example, RS 440c) between, and (for example at access node, RS 440c) with user's set (for example, SS 450a) between.In Figure 11, the RACK index signal may be transmitted in transmission path relaying ARQ section (that is, between transmitter and access node), and ACK and/or NACK index signal may be transmitted in the access ARQ section (that is, between access node and receiving system) of transmission path.Clearer and more definite, in Figure 11, ACK and/or NACK index signal may be sent to BS 430 from SS 450a, and the RACK index signal may be sent to BS 430 from RS 440c.
In the sender figure of Figure 11, resource distribution can cooperate the explanation that Fig. 9 does and proceed.After finishing resource distribution, BS 430 can transmit packet data to destination node (for example SS 450a) via one or more intermediate nodes (for example, RS440a, RS 440b and RS 440c).In addition, BS 430 can store copy to a buffer of sending packet data.In the example of Figure 11, packet data be by 8 data packages (that is, Data (8)) form.
RS 440a can successfully receive Data (8), and the copy that stores packet data is to its buffer, and the packet data that transmission is received is to RS 440b.Similarly, RS 440b can successfully receive Data (8), and the copy that stores packet data is to its buffer, and the packet data that transmission is received is to RS 440c.Yet between the transmission period of RS 440b to RS 440c, 2 packet datas may disturb owing to damage, mistake etc. and losing.Therefore, RS 440c may receive only 6 packet datas (that is, Data (6)).RS 440c can transmit Data (6) to SS 450a, and store transmit the copy of packet data to its buffer.Yet between RS 440c and SS 450a, in addition 2 packet datas may be lost, and cause having only 4 packet datas successfully to be received (that is, Data (4)) by SS 450a.Therefore, SS 450a can transmit an ACK index signal to RS 440c, to confirm successfully received 4 packet datas.
Receiving in the ACK index signal (that is, ACK (4)), RS 440c can produce a RACK index signal (that is, RACK{6}).The RACK index signal that is produced can confirm 8 data packages that BS 430 is sent which be successfully to receive by RS 440c.RS 440c can utilize received ACK index signal (that is, ACK (4)) to comprise RACK{6}, and along the upper link transmission path both is transferred to RS 440b from RS 440c, and RS 440a is then to BS 430.
Except producing and transmit the RACK index signal, RS 440c also can attempt being transmitted in again any packet data of losing between RS 440c and the SS 450a.As above in conjunction with the explanation of Fig. 6, RS440c can relatively be contained in the information of ACK index signal and the data that were stored in its buffer in the past.Based on this relatively, RS 440c can transmit any data that successfully do not received by SS 450a again.For example, as shown in figure 11, RS 440c can be transmitted in 2 packet datas losing between RS 440c and the SS 450a (that is, Data (2)) again.In this example, SS 450a may receive only 21 of data packets of transmission again (that is, Data (1)).Therefore, SS 450a can produce and transmit an ACK index signal to RS 440c, with confirm 2 again which (that is, ACK (1)) of the data packets of transmission can successfully be received.
When RS 440c received ACK index signal (that is, ACK (1)), RS 440c can be transmitted in 1 packet data losing between RS 440c and the SS 450a (that is, Data (1)) more again first between transmission period.Receiving successfully in 1 data package that SS 450a can produce an ACK index signal (that is, ACK (1)), and transmitting the ACK index signal that produced to RS 440c.RS440c can compare at present received ACK index signal information (that is, ACK (1)) and in the past received ACK index signal information (that is, ACK (1)), to obtain an ACK index signal of upgrading (that is, ACK (2)).In this example, the ACK index signal of renewal can confirm to transfer to again 2 the data packages that have only of SS 440c.
When RS 440c was transmitted in any packet data of losing between RS 440c and the SS 450a again, BS 430 can receive ACK and the RACK index signal of sending from RS 440c.BS 430 decodable code ACK and RACK index signal are with the transmission state of the packet data of the access ARQ section of decision relaying ARQ section of transmission path and transmission path.In this example, separate Code based on this, BS 430 can remove the packet data that is successfully received by SS 450a from its buffer.BS 430 can prepare new packet data transferring to SS 450a via RS 440c, and transmit new packet data and any packet data for the treatment of to transmit again to RS 440c.For example, BS 430 can remove by ACK (4) and be identified as 4 Datagrams that successfully received by SS 450a, and prepares " k " individual new data packet for transmission.In this, k may be any integer.Though show, but can be disposed again, as above about the explanation of Fig. 9 along the resource of transmission path.
In case these resources are redeployed, BS 430 can transmit the data packet (that is, Data (2+k)) of new and transmission again to RS 440a.RS 440a can successfully receive Data (2+k), and the copy that stores packet data is to its buffer, and the transmission packet data is to RS 440b.Similarly, RS 440b can successfully receive Data (2+k), and the copy that stores packet data is to its buffer, and the transmission packet data is to RS 440c.Receiving in the Data (2+k) that RS 440c can pass on new and packet data transmission again (that is, Data (2+k ')) to SS 450a.In this, k ' can be any integer, and can be with reference to the new data transmission between RS 440c and SS 450a.In other embodiment, k ' may be identical with k.In other embodiment, k ' may be different from k.In either case, RS 440c can determine the content of k '.
Receiving that in the Data (2+k '), SS 450a can transmit an ACK index signal to RS 440c, confirming the package (that is, ACK (2+k ')) of successfully received Data (2+k ').As above in conjunction with the explanation of Fig. 6, RS 440c can relatively contain the information of ACK index signal and the data that were stored in its buffer in the past.Based on this relatively, RS 440c can transfer to SS 450a again with any data that successfully do not received by SS 450a.Yet as shown in figure 11, SS 450a successfully receives the individual packet data of 2+k ', and the ACK index signal (that is, ACK (2+k ')) that transmits a correspondence is to RS 440c.RS 440c can compare at present received ACK index signal information (that is, ACK (2+k ')) and former received ACK index signal information (that is, ACK (2), to obtain an ACK index signal of upgrading, it confirms successfully the quantity of the data that received by SS 450a and/or identification (that is, ACK (4+k ')).In this example, the ACK index signal can confirm not to be sent in the past about an ACK 4 initial data packages of BS 430, and the individual new data packet of k ' that is successfully received by SS 450a.
In addition, RS 440c can produce a RACK index signal (that is, RACK{2+k ' }), the package of the Data that confirms successfully to be received by RS 440c (2+k ').The RACK index signal that is produced (that is, RACK{2+k ' }) may include ACK index signal (that is, ACK (4+k ')), and sends the 440b to RS along the upper link transmission path from RS 440c, and RS 440a is then to BS 430.
Though Figure 11 shows the transmission that the ACK index signal begins from SS 450a, SS 450a can transmit the ACK and/or the NACK index signal of any combination.Under a situation, error detection will be proceeded with correction, as mentioned above.Again, though sender Figure 110 0 is presented in the single transmission path enforcement demonstration example of using three RS 440, people are contemplated to the number of the RS 440 in a transmission path can be greater or less than shown number.In addition, though be not shown among Figure 11, between the transmission period of new data and at again between transmission period of data, also can use relaying transmit timing device again.
Figure 12 implements the error detection of demonstration example and sender Figure 120 0 of correction mechanism according to of the present invention one.Particularly, Figure 12 shows a kind of embodiment of two sections ARQ, and wherein communication is to result from two sections: at transmitter (for example, BS 430) with access node (for example, RS 440c) between, and (for example at access node, RS 440c) with user's set (for example, SS 450a) between.In Figure 12, the RACK index signal may be transmitted in transmission path relaying ARQ section (that is, between transmitter and access node), and ACK and/or NACK index signal may be transmitted in the access ARQ section (that is, between access node and receiving system) of transmission path.Clearer and more definite, in Figure 12, ACK and/or NACK index signal may be sent to BS 430 from SS 450a, and the RACK index signal may be sent to BS 430 from RS 440c.In Figure 12, in case RS 440c produces and transmits a RACK index signal to BS 430, then any ACK and/or NACK index signal that receives subsequently may be transferred to BS 430 by RS 440c.
In the sender figure of Figure 12, resource distribution can cooperate the explanation that Fig. 9 does and proceed.After finishing resource distribution, BS 430 can transmit packet data to destination node (for example SS 450a) via one or more intermediate nodes (for example, RS440a, RS 440b and RS 440c).In addition, BS 430 can store copy to a buffer of sending packet data.In the example of Figure 12, packet data be by 8 data packages (that is, Data (8)) form.
RS 440a can successfully receive Data (8), and the copy that stores packet data is to its buffer, and the transmission packet data is to RS 440b.Similarly, RS 440b can successfully receive Data (8), and the copy that stores packet data is to its buffer, and the transmission packet data is to RS 440c.Yet between the transmission period of RS440b to RS 440c, 2 packet datas may disturb owing to damage, mistake etc. and losing.Therefore, RS 440c may receive only 6 packet datas (that is, Data (6)).Therefore, RS 440c can only transmit Data (6) to SS 450a, and store transmit the copy of packet data to its buffer.Between RS 440c and SS 450a, in addition 4 packet datas may be lost, and cause having only 2 packet datas (that is, Data (2)) successfully to be received by SS 450a.Receiving that in 2 packet datas, SS 450a can transmit an ACK index signal to RS 440c, to confirm successfully received 2 packet datas.Receiving in the ACK index signal (that is, ACK (2)), RS 440c can produce a RACK index signal (that is, RACK{6}).The RACK index signal that is produced can confirm 8 data packages that BS 430 is sent which successfully received by RS 440c.RS 440c can utilize received ACK index signal (that is, ACK (2)) to comprise RACK{6}, and along the upper link transmission path two index signals is transferred to RS 440b from RS 440c, and RS 440a is then to BS 430.
Except producing and transmit the RACK index signal, RS 440c also can attempt being transmitted in again any packet data of losing between RS 440c and the SS 450a.As above in conjunction with the explanation of Fig. 6, RS440c can relatively be contained in the information of ACK index signal and the data that were stored in its buffer in the past.Based on this relatively, RS 440c can transmit any data that successfully do not received by SS 450a again.For example, as shown in figure 12, RS 440c can be transmitted in 4 packet datas losing between RS 440c and the SS 450a (that is, Data (4)) again.In this example, SS 450a can receive only 4 wherein 3 of data packets of transmission again (that is, Data (3)).Therefore, SS 450a can produce and transmit an ACK index signal to RS 440c, to confirm successfully received 3 data packets of transmission (that is, ACK (3)) again.When RS 440c received ACK index signal (that is, ACK (3)), RS 440c can pass on received ACK index signal to RS 440b from RS 440c along the upper link transmission path, and RS 440a is then to BS 430.In addition, RS 440c can be transmitted in 1 packet data losing between RS 440c and the SS 450a (that is, Data (1)) again.Receiving in 1 Datagram (that is, Data (1)) of success, SS 450a can produce an ACK index signal (that is, ACK (1)), and transmits the ACK index signal that produced to RS 440c.Again, when RS 440c received ACK index signal (that is, ACK (1)), RS 440c can pass on received ACK index signal to RS 440b from RS 440c along the upper link transmission path, and RS 440a is then to BS 430.This can proceed, and has successfully transmitted all data packets till the SS 450a up to RS 440c.
Though Figure 12 shows the transmission that the ACK index signal begins from SS 450a, SS 450a can transmit the ACK and/or the NACK index signal of any combination.Under a situation, error detection will be proceeded with correction, as mentioned above.Again, though sender Figure 120 0 is presented in the single transmission path enforcement demonstration example of using three RS 440, people are contemplated to the number of the RS 440 in a transmission path can be greater or less than shown number.In addition, though be not shown among Figure 12, between the transmission period of new data and at again between transmission period of data, also can use relaying transmit timing device again.Moreover in other embodiment, RS 440c can produce and transmit an independent ACK index signal to BS 430.One independent ACK index signal may be an ACK index signal, and it is produced by RS440 (for example, RS 440c).Independent ACK index signal by Event triggered (for example may belong to, in one or more ACK and/or NACK index signal is to send during from receptions such as SS 450a), maybe may be (for example to be triggered termly, send in the periodic interval that is predetermined, send when the transmit timing device expires again at relaying, one or more other timers and/or the sequential incident expires and/or be to send when surpassing etc.).In addition, in other embodiment, access RS 440 (for example, RS 440c) can produce and transmit an independent RACK index signal to BS 430.For example, if an ACK and/or NACK index signal did not receive from SS 450a before a trigger event produces, then access RS 440 can produce and transmit an independent RACK index signal.The example of trigger event comprises: when receive an ACK index signal from SS 450a, every when surpass between one periodicity that is predetermined, when one relaying transmit timing device again expires, and when one or more other timers and/or sequential incident expire and/or be to surpass etc.In other embodiments, access RS 440 (for example, RS 440c) can compare buffer state, wherein before any trigger event produces, if access RS 440 receives one or more ACK index signals from SS 450, then access RS 440 is accompanied by the one or more ACK index signals that received and produces and transmit a RACK index signal.
Figure 13 implements the error detection of demonstration example and sender Figure 130 0 of correction mechanism according to of the present invention one.Particularly, Figure 13 shows a kind of embodiment of two sections ARQ, and wherein communication is to result from two sections: at transmitter (for example, BS 430) with access node (for example, RS 440c) between, and (for example at access node, RS 440c) with user's set (for example, SS 450a) between.In Figure 13, the RACK index signal may be transmitted in transmission path relaying ARQ section (that is, between transmitter and access node), and ACK and/or NACK index signal may be transmitted in the access ARQ section (that is, between access node and receiving system) of transmission path.Clearer and more definite, in Figure 13, ACK and/or NACK index signal may be sent to BS 430 from SS 450a, and the RACK index signal may be sent to BS 430 from RS 440c.In addition, in the shown embodiment of Figure 13, RS 440c is designed in order to set relaying transmit timing device T again n(for example, T 2), transmit use again for the one or more parts between RS 440c and SS 450a.In this embodiment, work as T 2Expire or transmit when finishing the part of data again, RS 440c can transmit one or more ACK and/or RACK index signal to BS 430 after confirming buffer state.
In the sender figure of Figure 13, resource distribution can cooperate the explanation that Fig. 9 does and proceed.After finishing resource distribution, BS 430 can transmit packet data to destination node (for example SS 450a) via one or more intermediate nodes (for example, RS440a, RS 440b and RS 440c).In addition, BS 430 can store copy to a buffer of sending packet data.In the example of Figure 13, packet data be by 8 data packages (that is, Data (8)) form.
RS 440a can successfully receive Data (8), and the copy that stores packet data is to its buffer, and the transmission packet data is to RS 440b.Similarly, RS 440b can successfully receive Data (8), and the copy that stores packet data is to its buffer, and the transmission packet data is to RS 440c.Yet between the transmission period of RS440b to RS 440c, 2 packet datas may disturb owing to damage, mistake etc. and losing.Therefore, RS 440c may receive only 6 packet datas (that is, Data (6)), and can produce and transmit a RACK index signal (that is, RACK{6}) to BS 430, to reflect that 6 data are packaged into merit ground and are received by RS 440c.
RS 440c can transmit Data (6) to SS 450a, and the copy of storage transmission packet data is to its buffer.In an embodiment, when transferring to SS 450a with Data (6), RS 440c can set relaying transmit timing device T again 1As mentioned above, the relaying that uses for each RS 440 transmit timing device again may be set a numerical value, and it is reflected in the total two-way time between RS 440 and the destination node (for example, SS 450a).In this, relaying is transmit timing device T again 1May be set a numerical value, it is reflected in the total two-way time between RS 440c and the SS 450a.
At the example of Figure 13, Data (6) may lose between RS 440c and SS 450a.Therefore, SS 450a can't receive any data, and will can not prepare and/or transmit an ACK or NACK index signal.As above in conjunction with the explanation of Fig. 8, the relaying of RS 440c is transmit timing device T again 1To under the situation that does not receive ACK and/or NACK index signal, expire from SS 450a.In case relaying is transmit timing device T again 1Expire, RS 440c can produce an ACK index signal (that is, ACK (0)).The ACK index signal that is produced will reflect the fact that does not have data packet to be approved by SS 450a.ACK that is produced and RACK index signal can transfer to RS 440b from RS 440c along the upper link transmission path, and RS 440a is then to BS 430.In an embodiment, ACK and RACK index signal may produce and/or send simultaneously.In another implemented demonstration example, the RACK index signal may be produced and be sent in the packet data being received by RS 440c of success, but the ACK index signal may be at relaying transmit timing device T again 1Produced and sent when expiring.
Except producing and transmit the RACK index signal, RS 440c also can attempt being transmitted in again any packet data of losing between RS 440c and the SS 450a.For example, as shown in figure 13, RS 440c can be transmitted in 6 packet datas losing between RS 440c and the SS 450a (that is, Data (6)) again.In an embodiment, RS 440c can begin one second relaying transmit timing device T again 2, begin first of packet data simultaneously and transfer to SS 450a again.Implement in the demonstration example in another, second relaying is transmit timing device T again 2May with first relaying transmit timing device T again 1Begin simultaneously.Relaying is transmit timing device T again 2May be configured to a numerical value, it is reflected in the total two-way time between RS 440c and the SS 450a.
In this example, SS 450a can receive only 6 wherein 5 of data packets of transmission again (that is, Data (5)).Therefore, SS 450a can produce and transmit an ACK index signal to RS 440c, with confirm 5 again the data packets (that is, ACK (5)) of transmission successfully be received.When RS 440c received ACK index signal (that is, ACK (5)), RS 440c can be transmitted in 1 packet data losing between RS 440c and the SS 450a (that is, Data (1)) again.When successfully receiving 1 Datagram (that is, Data (1)), SS 450a can produce an ACK index signal (that is, ACK (1)), and transmits the ACK index signal that produced to RS 440c.RS 440c can compare at present received ACK index signal information (that is, ACK (1)) with in the past received ACK index signal information (that is, ACK (5)), to obtain an ACK index signal, it confirms successfully the quantity of the data that received by SS 450a and/or identification (that is, ACK (6)).In this example, the ACK index signal can be confirmed successfully 6 data packages that transmit again from RS 440c of being received by SS 450a.
RS 440c can continue to transmit again data, up to relaying transmit timing device T again 2Till expiring.In other embodiment, relaying transmit timing device again may transmit for each of packet data again and begins.In other embodiment, the relaying transmit timing device situation that may begin again comprises and all relevant transmission attempts again of one group of first transmission data.In either case, in case relaying transmit timing device T again 2Expire, RS 440c can be along the upstream transmission path, from RS 440c transferring ACK index signal (that is, ACK (6)) and/or transmitted the copy (that is, RACK (6)) of RACK index signal in the past to RS 440b, RS 440a is then to BS 430.
Though Figure 13 shows the transmission that the ACK index signal begins from SS 450a, SS 450a can transmit the ACK and/or the NACK index signal of any combination.Under a situation, error detection will be proceeded with correction, as mentioned above.Again, though sender Figure 130 0 is presented in the single transmission path enforcement demonstration example of using three RS 440, people are contemplated to the number of the RS 440 in a transmission path can be greater or less than shown number.In addition, though be not shown among Figure 13, between the transmission period of new data and at again between transmission period of data, also can use relaying transmit timing device again.
Figure 14 shows according to the ACK of an enforcement demonstration example of the present invention and the sender figure of RACK index signal.As shown in figure 14, BS 430 transmits 8 data packages to RS 440a, RS 440a successfully receives and transmits 8 data packages to RS 440b, and RS 440b successfully receives and transmit these 6 data packages to RS 440c, and RS 440c successfully receives and transmit these 6 data packages to SS450a.Yet SS 450a only successfully receives 3 data packages, and therefore, the ACK index signal that SS 450a is transmitted can inform that success receives 3 Datagrams.
In Figure 14, this ACK index signal that is produced by SS 450a may comprise 8 data zones, and SS 450a can confirm 3 data packages that success receives.Though the employed data area of the example of Figure 14 is single position, the figure place of these data areas or configuration and setting can be any.As shown in figure 14, SS 450 may produce the ACK index signal of " 11000100 ".SS 450a may be sent to RS 440c with the ACK index signal that is produced.
RS 440c more thus the information that provided of ACK index signal (that is, the identification signal of the data packet that successfully receives by SS 450a), the data packet that successfully receives by RS 440c and in this ACK index signal, be denoted as the data packet that successfully receives by SS 450a and relatively.The RACK index signal that RS 440c is produced can be confirmed successfully to be received but the data packet of not informed by this ACK index signal by RS 440c.About the data that successfully receive and informed by the ACK index signal by RS 440c, RS 440c may insert " don ' t care (no matter it) " or " no additionalinformation (no extraneous information) " index signal (for example " "), and it produces the RACK index signal and can comprise received ACK index signal.As shown in figure 14, the RACK index signal that is produced by RS 440c may be "--110-10 ", and this ACK and RACK index signal will be " 11000100 " and "--110-10 ".In certain embodiments, the RACK index signal is added in the control section that the ACK index signal may be illustrated in message, uses for example a certain position at this message header.RS 440c may be sent to RS 440b with this ACK and RACK index signal.
RS 440b more thus the information that provided of ACK index signal and RACK index signal (that is, the identification signal of the data packet that success is received by SS 450a and RS 440c), and more the data that received by RS 440b of success are denoted as in the ACK index signal successfully by the data packet of SS 450a reception therewith and are denoted as successfully data packet by RS 440c reception in this RACK index signals.The RACK index signal that RS 440b is produced can be confirmed successfully by RS 440b reception but not by the data packet of this ACK and/or RACK index signal sign.About the data that successfully receive and indicated by ACK and/or RACK index signal by RS 440b, RS 440b may insert " don ' t care " or " no additional information " index signal (for example " "), and the RACK index signal that it produced can comprise received ACK and RACK index signal.As shown in figure 14, the RACK index signal that is produced by RS 440b may be "----0--0 ", and this ACK and RACK index signal will to be " 11000100 " follow "--110-10 " and "----0--0 ".As mentioned above, in certain embodiments, add these a little RACK index signals so far the ACK index signal may be illustrated in the control section of this message, by the position of using in this message header for example.In this example, RS 440b may be illustrated in this message header, and all positions of this kind RACK are " don ' t care ".RS 440b may be sent to RS 440a with this ACK index signal and the RACK index signal that is comprised.
RS 440a more thus the information that provided of ACK index signal and RACK index signal (that is, successfully by SS 450a, the identification signal of the data packet that RS 440c and RS 440b are received), and more successfully the data that receive by RS 440a with in this ACK index signal, be denoted as successfully the data packet that receives by SS 450a and in this RACK index signal, be denoted as successfully by the data packet of RS 440c with RS 440b reception.Based on this relatively, the RACK index signal that RS 440a is produced can be confirmed successfully by RS 440a reception but not by the data packet of this ACK and/or RACK index signal sign.About the data that successfully receive and indicated by ACK and/or RACK index signal by RS 440a, RS 440a may insert " don ' t care " or " no additional information " index signal (for example " "), and the RACK index signal that it produced comprises received ACK and RACK index signal.As shown in figure 12, the RACK index signal that is produced by RS 440a may be "----1--1 ", and this ACK and RACK index signal will be " 11000100 " follows "--110-10 ", with "----1--0 ".RS 440a can transmit ACK and RACK index signal to BS 430.
Figure 15 shows different RACK index signal patterns.As shown in figure 15, have four kinds of RACK patterns, it can be in order to represent one or more RACK index signals.Generally speaking, in disclosed embodiment, 440 couples of each RS are expressed as the data that has received and are considered as " don ' t care (no matter it) " in the ACK index signal, and only report intermediate node or the received data of access node (that is RS 440) on the transmission path.In Figure 15, the ACK index signal confirms that block 1 and 7 is for successfully being received by SS 450.In Figure 15, block 1 and 7 is by solid demonstration.
In RACK pattern 0, be called " Selective RACK Map (selectivity RACK figure) " in this, (block sequence number is to re-use in the RACK index signal BSN), to economize on resources to the block of information sequence number of ACK.Therefore, in this RACK pattern, have only 4 data blocks (that is, 3,5,6 and 8) to be reported in the RACK index signal, and block 1 and 7 is reported in the ACK index signal.Block 3,5,6 and 8 is to show that with point- like block 1 and 7 is with solid demonstration.Therefore, this node or section are used pattern 0 (selectivity RACK figure), and the RACK data flow after BSN is " 00101101 ".
RACK pattern 1 is called " Cumulative RACK Map (cumulative bad RACK figure) " in this, can be used in the time of will reporting the continuous data block.In this example, the RACK index signal will be reported 4 continuous data blocks, that is, 2,3,4 and 5.Therefore, data flow " 0100 " will be apprised of in order to represent four data blocks.Block 2,3,4 and 5 is to show that by point- like block 1 and 7 is with solid demonstration.Data flow will continue and begin after BSN.Therefore, this section uses the Cumulative RACK Map of pattern 1, and the RACK data flow behind BSN may be " 00100000 ", and preceding four bit tables are shown with 4 continuous data blocks (that is " 0010 " is other four positions then).Perhaps, this section uses the Cumulative RACK Map of pattern 1, and then the RACK data flow after BSN may be " 00000100 ", uses final four positions to represent to have 4 continuous data blocks (that is " 0010 " is after other four positions).
RACK pattern 2 is called " Cumulative with Selective RACK Map (accumulation formula selectivity RACK figure) " in this, may use when the continuous data block has some mask data block.In this example, except the block 1 and 7 of ACK, data blocks 2,3,4,6 and 8 also needs to be reported.Therefore, data flow " 0011 " will be used among the Selective RACK Map with expression block 2-4.In Selective RACK Map, will be from the data flow " 10101 " that final expression block of information begins in order to expression data blocks 6 and 8.In other words, in the Cumulativewith of pattern 2 Selective RACK Map, first block that is expressed as " 1 " is the final block of information in SelectiveRACK Map.In Figure 15, block 1 and 7 is with solid demonstration, and block 2,3,6 and 8 shows with point-like, and the Cumulativewith Selective RACK Map of Selective RACK Map and pattern 2 shows with diagonal stripes.Therefore, this section uses the Cumulative with Selective RACK Map of pattern 2, and the RACK data flow behind BSN may be " 01110101 ".Perhaps, this section uses the Cumulative with Selective RACK Map of pattern 2, and the RACK data flow behind BSN can be " 10101011 ".In either case, the RACK data flow can be any combination of " 011 " and " 10101 ".
RACK pattern 3 is called " Cumulative with R-Block Sequence (accumulation formula Zone R piece order) " in this, may be in order to confirm the ACK and the NACK of the block of reporting.In this, " 1 " can represent ACK and " 0 " can represent NACK.In this example, except the block 1 and 7 of ACK, data blocks 2 and 3 should be reported to ACK, and data blocks 4-7 should be reported to NACK, and data blocks 8 should be reported to ACK.Therefore, this Sequence ACK Map is " 101 ", and the length of follow-up block is " 0010, " " 0100 " and " 0001 ".
By using ACK and RACK index signal, Control Node (for example BS 430) but acquired information and determine every section resource distribution.In resource distribution, for example, the number of resource requirement can be taken passages (abstract).In embodiment, the length of number that does not indicate the position in Selective RACK Map (RACK pattern 0 and RACK pattern 2) and block of information order (RACK pattern 1, RACK pattern 2 and RACK pattern 3) can be in order to confirm to transmit the resource needed number again.In data are transmitted again, transmit needed correct data block again and also may be taken passages.For example, the data that is expressed as " 0 " in Selective/Cumulative RACK Map (RACK pattern 0, RACK pattern 1 and RACK pattern 2), and the data in the NACK block order in Cumulative with R-Block Sequence ACKMap (accumulation formula R-Block order ACK figure) may be identified, for transmission again.
Described embodiment may be implemented in any network configuration of utilizing W-CDMA technology, agreement or standard in.Especially, described embodiment can shorten signal processing time and improve W-CDMA for the network on basis in the error detection of data and the relevant data traffic of transmission again.Described embodiment can improve the performance of wireless network and/or system.Under described embodiment, in the system that utilizes known error detection and correction, system and/or network can't effectively utilize with the switching of inside, unit (for example, between RS 120c and RS 120b) and the unit between signal change hand (for example, at RS 120c with between the RS 120 beyond the coverage of BS 110) relevant resource.Therefore, can increase the error detection of wireless network and the effect of correction.For example, referring to Fig. 4,, and have only the known error detection of enforcement and correction if SS 450c moves to RS 440b from RS 440c, then still can't before signal changes hand, may be lost, and need transmission again between the end points of packet data by the packet data that RS 440c transfers to SS 450c.About another example, if SS 450c moves to another RS 550 of the coverage outside (not being shown in Fig. 4) of BS 430 from RS 550c, and have only the known error detection of execution and correction, then still can't before signal changes hand, also may be lost, and need transmission again between the end points of packet data by the packet data that RS 440c transfers to SS 450c.Therefore, the known error detection in multinode transmission with revise the remarkable increase that can cause expense, long delay and the resource of waste.Therefore, according to described embodiment,, can reach the effect of improving performance by the transmission again of localization packet data.
In sum, though the present invention describes as above with a preferred embodiment, so it is not in order to limit the present invention.The persond having ordinary knowledge in the technical field of the present invention, without departing from the spirit and scope of the present invention, when being used for a variety of modifications and variations.Therefore, protection scope of the present invention is as the criterion when the content that the claim scope that look application is defined.

Claims (42)

1, a kind of method of in a wireless telecommunication system, utilizing the transmission control of an access device, this wireless telecommunication system comprises a plurality of receiving systems, and this method comprises:
Receive the first transmission data for transferring to a user's set from an epigyny device, wherein this access device and those receiving systems carry out communication, and user's set is the one of those receiving systems;
Transmit this and first transfer data to this user's set;
Utilize this access device to produce one first access and receive index signal, it is corresponding to these first transmission data;
Transmit this first access and receive index signal to this epigyny device;
If this access device does not receive these first transmission data of indication from this user's set and receives index signal by one first user that this user's set receives, one or more parts of then transmitting these first transmission data again are to this user's set;
Utilize this access device to receive the second transmission data for transferring to this user's set;
Utilize this access device to produce one second access and receive index signal, it is corresponding to these second transmission data;
Transmit this second access and receive index signal to this epigyny device; And
If this access device does not receive these second transmission data of indication from this user's set and receives index signal by one second user that this user's set receives, one or more parts of then transmitting these second transmission data again are to this user's set.
2, the method for claim 1 comprises:
If this access device does not receive these first transmission data of indication from this user's set and receives index signal by this first user that this user's set receives, one or more parts of then transmitting these first transmission data again are to this user's set; And
Receive one or more follow-up first users from this user's set and receive index signal, it is corresponding to one or more parts of these first transmission data.
3, method as claimed in claim 2, wherein, this first user receives the one or more packages that are contained in these first transmission data that the index signal affirmation is successfully received by this user's set, then second user receives index signal and confirms the one or more packages that are contained in these second transmission data that successfully received by this user's set, and one or more follow-up first user receives one or more packages that index signal is confirmed successfully the one or more parts that are contained in these first transmission data that received by this user's set.
4, method as claimed in claim 2, wherein, this first user receives the one or more packages that are contained in these first transmission data that the index signal affirmation is successfully received by this user's set, this second user receives the one or more packages that are contained in these second transmission data that the index signal affirmation is successfully received by this user's set, and one or more follow-up first user receives index signal comprises an affirmation (ACK) or a negative acknowledgment (NACK) index signal at least one.
5, the method for claim 1 comprises:
If this access device does not receive these second transmission data of indication from this user's set and receives index signal by this second user that this user's set receives, these one or more parts of then transmitting these second transmission data again are to this user's set; And
Receive one or more follow-up second users from this user's set and receive index signal, it is corresponding to these one or more parts of these second transmission data.
6, method as claimed in claim 5, wherein, this first user receives the one or more packages that are contained in these first transmission data that the index signal affirmation is successfully received by this user's set, this second user receives index signal and confirms the one or more packages that are contained in these second transmission data that successfully received by this user's set, and one or more follow-up second user receives one or more packages that index signal is confirmed successfully these one or more parts that are contained in these second transmission data of being received by this user's set.
7, method as claimed in claim 6, wherein, this first user receives the one or more packages that are contained in these first transmission data that the index signal affirmation is successfully received by this user's set, this second user receives the one or more packages that are contained in these second transmission data that the index signal affirmation is successfully received by this user's set, and one or more follow-up second user receives index signal comprises an affirmation (ACK) or a negative acknowledgment (NACK) index signal at least one.
8, the method for claim 1, wherein, this first access receives index signal and confirms the one or more packages that are contained in these first transmission data that successfully received by this access device, and this second access receives index signal and confirms the one or more packages that are contained in these second transmission data that successfully received by this access device.
9, method as claimed in claim 8, wherein, each of this first access reception index signal and this second access reception index signal comprises relaying ACK (RACK) index signal.
10, a kind of wireless communication apparatus, it is in order to do wireless telecommunications in a wireless telecommunication system, and this wireless telecommunication system comprises a plurality of receiving systems, and this wireless communication apparatus comprises:
At least one holder is in order to the storage data and instruction; And
At least one processor, it is designed in order to this holder of access, and when carrying out those instructions, this at least one processor be designed in order to:
Receive the first transmission data for transferring to a user's set from an epigyny device, wherein this wireless communication apparatus and those receiving systems carry out communication, and this user's set is the one of those receiving systems;
Transmit this and first transfer data to this user's set;
Produce one first access and receive index signal, it is corresponding to these first transmission data;
Transmit this first access and receive index signal to this epigyny device;
If this wireless communication apparatus does not receive these first transmission data of indication by one first user's index signal that this user's set receives from this user's set, one or more parts of then transmitting these first transmission data again are to this user's set;
Receive the second transmission data for transferring to this user's set;
Produce one second access and receive index signal, it is corresponding to these second transmission data;
Transmit this second access and receive index signal to this epigyny device; And
If this wireless communication apparatus does not receive these second transmission data of indication from this user's set and receives index signal by one second user that this user's set receives, one or more parts of then transmitting these second transmission data again are to this user's set.
11, wireless communication apparatus as claimed in claim 10, wherein, this processor be designed in order to:
If this wireless communication apparatus does not receive these first transmission data of indication from this user's set and receives index signal by this first user that this user's set receives, one or more parts of then transmitting these first transmission data again are to this user's set; And
Receive one or more follow-up first users from this user's set and receive index signal, it is corresponding to one or more parts of these first transmission data.
12, wireless communication apparatus as claimed in claim 11, wherein, this first user receives the one or more packages that are contained in these first transmission data that the index signal affirmation is successfully received by this user's set, this second user receives index signal and confirms the one or more packages that are contained in these second transmission data that successfully received by this user's set, and this one or more follow-up first users receive index signal and confirm successfully to be contained in this first one or more packages that transmit one or more parts of data by what this user's set received.
13, wireless communication apparatus as claimed in claim 11, wherein, this first user receives the one or more packages that are contained in these first transmission data that the index signal affirmation is successfully received by this user's set, this second user receives the one or more packages that are contained in these second transmission data that the index signal affirmation is successfully received by this user's set, and these one or more follow-up first users receive index signal comprises an affirmation (ACK) or a negative acknowledgment (NACK) index signal at least one.
14, wireless communication apparatus as claimed in claim 10, wherein, this processor be designed in order to:
If this wireless communication apparatus does not receive these second transmission data of indication from this user's set and receives index signal by this second user that this user's set receives, these one or more parts of then transmitting these second transmission data again are to this user's set; And
Receive one or more follow-up second users from this user's set and receive index signal, it is corresponding to these one or more parts of these second transmission data.
15, wireless communication apparatus as claimed in claim 14, wherein, this first user receives the one or more packages that are contained in these first transmission data that the index signal affirmation is successfully received by this user's set, this second user receives index signal and confirms the one or more packages that are contained in these second transmission data that successfully received by this user's set, and this one or more follow-up second users receive index signal and confirm successfully to be contained in this second one or more packages that transmit these one or more parts of data by what this user's set received.
16, wireless communication apparatus as claimed in claim 15, wherein, this first user receives the one or more packages that are contained in these first transmission data that the index signal affirmation is successfully received by this user's set, this second user receives the one or more packages that are contained in these second transmission data that the index signal affirmation is successfully received by this user's set, and these one or more follow-up second users receive index signal comprises an affirmation (ACK) or a negative acknowledgment (NACK) index signal at least one.
17, wireless communication apparatus as claimed in claim 10, wherein, this first access receives index signal and confirms the one or more packages that are contained in these first transmission data that successfully received by this access device, and this second access receives index signal and confirms the one or more packages that are contained in these second transmission data that successfully received by this access device.
18, wireless communication apparatus as claimed in claim 17, wherein, each of this first access reception index signal and this second access reception index signal comprises relaying ACK (RACK) index signal.
19, a kind of method of in a wireless telecommunication system, utilizing the transmission control of access device, this wireless telecommunication system comprises a plurality of receiving systems, and this method comprises:
Receive the transmission data for transferring to a user's set from an epigyny device, wherein this access device and those receiving systems carry out communication, and this user's set is the one of those receiving systems;
Transmit this and transfer data to this user's set;
Produce an access and receive index signal, it transmits data corresponding to this;
If this access device receives an initial user from this user's set and receives index signal, then:
Receive index signal with this initial user and comprise this access reception index signal, and
Transmit this access reception index signal and this user and receive index signal to this epigyny device; And
If this access device does not receive index signal from receive this initial user from this user's set, then:
Transmit this access and receive index signal to this epigyny device, and
Again at least a portion of transmitting these transmission data is to this user's set.
20, method as claimed in claim 19, wherein, when this access device received this initial user reception index signal, this initial user received index signal and indicates these the less transmission data that are sent to this user's set successfully to be received, and then this method comprises:
Again transmit one or more parts of these transmission data, it is not identified as successfully by this initial user reception index signal and is received by this user's set.
21, as claim 20 a described method, comprise:
Receive one or more replenish user and receive index signal, it is corresponding to one first transmission data;
Relatively these one or more replenish user receive index signal;
Receive the subsequent transmission data from this epigyny device;
These subsequent transmission data that transmission is received are to this user's set;
Produce a subsequent access and receive index signal, it is corresponding to these subsequent transmission data that received;
Receive a subsequent user from this user's set and receive index signal, it is corresponding to these subsequent transmission data;
This subsequent user is received index signal to be combined into a user who combines with one or more replenish user reception index signals of this process comparison and to receive index signal;
Receiving index signal with the user of this combination comprises this subsequent access and receives index signal; And
Transmitting this subsequent access receives the user that index signal combines with this and receives index signal to this epigyny device.
22, method as claimed in claim 20 comprises:
Receive one or more replenish user and receive index signal, it is corresponding to these first transmission data;
Relatively these one or more replenish user receive index signal;
Receive the subsequent transmission data from this epigyny device;
These subsequent transmission data that transmission is received are to this user's set;
Produce a subsequent access and receive index signal, it is corresponding to these subsequent transmission data that received;
Receive a subsequent user from this user's set and receive index signal, it is corresponding to these subsequent transmission data;
The user that this initial user reception index signal, this subsequent user reception index signal and this process one or more replenish user reception index signals relatively are combined into a combination receives index signal;
Receiving index signal with the user of this combination comprises this subsequent access and receives index signal; And
Transmitting this subsequent access receives the user that index signal combines with this and receives index signal to this epigyny device.
23, method as claimed in claim 19 comprises:
Begin a timer, wherein this timer is to set according to the round-trip transmission time between this access device and this user's set; And
If before this timer expires, this access device does not receive this user from this user's set and receives index signal, then:
Transmit this access and receive index signal to this epigyny device, and
Again transmit this and transfer data to this user's set.
24, method as claimed in claim 23 comprises:
Produce an access user and receive index signal, it comprises by the indication of this user's set approval to any data of this access device;
Comprise this access user with this access reception index signal and receive index signal; And
Transmit this access reception index signal and this access user who comprises and receive index signal to this epigyny device.
25, method as claimed in claim 19 comprises:
Begin a first timer, wherein this first timer is to set according to the round-trip transmission time between this access device and this user's set; And
If before this first timer expires, this access device does not receive this user from this user's set and receives index signal, then:
Transmit this access and receive index signal to this epigyny device;
Again transmit this and transfer data to this user's set;
Begin a second timer, wherein this second timer is to set according to the round-trip transmission time between this access device and this user's set, and
If before this second timer expires, this access device does not receive transmission reception index signal again and again from this user's set, then transmits this access and receives index signal to this epigyny device.
26, method as claimed in claim 25, wherein, when this access device before this first timer expires not when this user's set receives this reception index signal, then this method comprises:
Produce an initial access user and receive index signal, it comprises the indication by these transmission data of this user's set approval;
Comprise this initial access user with this access reception index signal and receive index signal; And
Transmit this access node reception index signal and this initial access user who comprises and receive index signal to this epigyny device.
27, method as claimed in claim 25, wherein, when this access device before this second timer expires not when this user's set receives this reception index signal, then this method comprises:
After producing an initial access user index signal, produce a subsequent access user and receive index signal, it comprises the indication by these transmission data of this user's set approval; And
Transmitting this subsequent access user receives index signal and this access and receives index signal to this epigyny device.
28, method as claimed in claim 25, wherein, when this access device before this timer expires not when this user's set receives this reception index signal, then this method comprises:
Produce an access user and receive index signal, it comprises by the indication of this user's set approval to any data of this access device; And
Transmitting this access user receives index signal and this access and receives index signal to this epigyny device.
29, method as claimed in claim 25, wherein, when this access device received a user and receives index signal, this user received index signal and indicates the part of these transmission data successfully to be received by this user's set, and then this method comprises:
Again transmit and receive index signal by this user and be identified as not this transmission section data that successfully receives by this user's set.
30, method as claimed in claim 29 comprises:
Receive one or more users and transmit the reception index signal again;
Passing on these one or more users transmits and receives index signal to this epigyny device; And
Again transmit any part of transmission again of these transmission data, it transmits the reception index signal again by these one or more users and is not expressed as successfully by this user's set reception.
31, a kind of wireless communication apparatus, it is in order to do wireless telecommunications in a wireless telecommunication system, and this wireless telecommunication system comprises a plurality of receiving systems, and this wireless communication apparatus comprises:
At least one holder is in order to the storage data and instruction; And
At least one processor, it is designed in order to this holder of access, and when carrying out those instructions, this at least one processor be designed in order to:
Receive the transmission data for transferring to a user's set from an epigyny device, wherein this wireless communication apparatus and those receiving systems carry out communication, and this user's set is the one of those receiving systems;
Transmit this and transfer data to this user's set;
Produce an access and receive index signal, it transmits data corresponding to this;
If this wireless communication apparatus receives an initial user from this user's set and receives index signal, then:
Receive index signal with this initial user and comprise this access reception index signal, and
Transmit this access reception index signal and this user and receive index signal to this epigyny device; And
If this wireless communication apparatus does not receive this initial user from this user's set and receives index signal, then:
Transmit this access and receive index signal to this epigyny device, and
Again at least a portion of transmitting these transmission data is to this user's set.
32, wireless communication apparatus as claimed in claim 31, wherein, when this wireless communication apparatus receives this initial user reception index signal, this initial user receives less these all transmission data that index signal indication is sent to this user's set and successfully is received, then this at least one processor be designed in order to:
Again transmit one or more parts of these transmission data, it is not identified as successfully by this initial user reception index signal and is received by this user's set.
33, wireless communication apparatus as claimed in claim 32, wherein, this at least one processor be designed in order to:
Receive one or more replenish user and receive index signal, it is corresponding to one first transmission data;
Relatively these one or more replenish user receive index signal;
Receive the subsequent transmission data from this epigyny device;
These subsequent transmission data that transmission is received are to this user's set;
Produce a subsequent access and receive index signal, it is corresponding to the transmission data of this follow-up reception;
Receive a subsequent user from this user's set and receive index signal, it is corresponding to these subsequent transmission data;
This subsequent user is received index signal to be combined into a user who combines with one or more replenish user reception index signals of this process comparison and to receive index signal;
Receiving index signal with the user of this combination comprises this subsequent access and receives index signal; And
Transmitting this subsequent access receives the user that index signal combines with this and receives index signal to this epigyny device.
34, wireless communication apparatus as claimed in claim 32, wherein, this at least one processor be designed in order to:
Receive one or more replenish user and receive index signal, it is corresponding to the first transmission data;
Relatively these one or more replenish user receive index signal;
Receive the subsequent transmission data from this epigyny device;
These subsequent transmission data that transmission is received are to this user's set;
Produce a subsequent access and receive index signal, it is corresponding to the transmission data of this follow-up reception;
Receive a subsequent user from this user's set and receive index signal, it is corresponding to these subsequent transmission data;
The user that this initial user reception index signal, this subsequent user reception index signal and this process one or more replenish user reception index signals relatively are combined into a combination receives index signal;
Receiving index signal with the user of this combination comprises this subsequent access and receives index signal; And
Transmitting this subsequent access receives the user that index signal combines with this and receives index signal to this epigyny device.
35, wireless communication apparatus as claimed in claim 31, wherein, this at least one processor be designed in order to:
Begin a timer, wherein this timer is to set according to the round-trip transmission time between this wireless communication apparatus and this user's set; And
If before this timer expires, this wireless communication apparatus does not receive this user from this user's set and receives index signal, then:
Transmit this access and receive index signal to this epigyny device, and
Again transmit this and transfer data to this user's set.
36, wireless communication apparatus as claimed in claim 35, wherein, this at least one processor be designed in order to:
Produce an access user and receive index signal, it comprises by the indication of this user's set approval to any data of this wireless communication apparatus;
Comprise this access user with this access reception index signal and receive index signal; And
Transmit this access reception index signal and this access user who comprises and receive index signal to this epigyny device.
37, wireless communication apparatus as claimed in claim 31, wherein, this at least one processor be designed in order to:
Begin a first timer, wherein this first timer is to set according to the round-trip transmission time between this wireless communication apparatus and this user's set; And
If before this first timer expires, this wireless communication apparatus does not receive this user from this user's set and receives index signal, then:
Transmit this access and receive index signal to this epigyny device,
Again transmit this and transfer data to this user's set,
Begin a second timer, wherein this second timer system set according to the round-trip transmission time between this wireless communication apparatus and this user's set, and
If before this second timer expires, this wireless communication apparatus does not receive transmission reception index signal again and again from this user's set, then transmits this access and receives index signal to this epigyny device.
38, wireless communication apparatus as claimed in claim 37, wherein, when this wireless communication apparatus before this first timer expires not when this user's set receives this reception index signal, then this at least one processor be designed in order to:
Produce an initial access user and receive index signal, it comprises the indication by these transmission data of this user's set approval;
Comprise this initial access user with this access reception index signal and receive index signal; And
Transmit this access node reception index signal and this initial access user who comprises and receive index signal to this epigyny device.
39, wireless communication apparatus as claimed in claim 37, wherein, when this wireless communication apparatus before this second timer expires not when this user's set receives this reception index signal, then this at least one processor be designed in order to:
After producing an initial access user index signal, produce a subsequent access user and receive index signal, it comprises the indication by these transmission data of this user's set approval; And
Transmitting this subsequent access user receives index signal and this access and receives index signal to this epigyny device.
40, wireless communication apparatus as claimed in claim 37, wherein, when this wireless communication apparatus before this timer expires not when this user's set receives this reception index signal, then this at least one processor be designed in order to:
Produce an access user and receive index signal, it comprises by the indication of this user's set approval to any data of this wireless communication apparatus; And
Transmitting this access user receives index signal and this access and receives index signal to this epigyny device.
41, as claim 37 a described wireless communication apparatus, wherein when this wireless communication apparatus receives a user and receives index signal, this user receives the part that index signal indicates these transmission data and is successfully received by this user's set, then this at least one processor be designed in order to:
Again transmit and receive index signal by this user and be identified as not this transmission section data that successfully receives by this user's set.
42, wireless communication apparatus as claimed in claim 41, wherein, this at least one processor be designed in order to:
Receive one or more users and transmit the reception index signal again;
Passing on these one or more users transmits and receives index signal to this epigyny device; And
Again transmit any part of transmission again of these transmission data, it transmits the reception index signal again by these one or more users and is not expressed as successfully by this user's set reception.
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US679208P 2008-01-31 2008-01-31
US61/006,792 2008-01-31
US12/137,792 US8201041B2 (en) 2007-07-03 2008-06-12 Transmission control methods and devices for communication systems
US12/137,792 2008-06-12
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