Management of wireless devices in limited radio coverage

Tamra

In this document, a mechanism for enhancing the radio coverage of the radio transmitter based on the exchange of radio status information for an uplink (the data-sand channel from the archive station to the satellite) and a downlink, is indicated by the radio coverage category (RCC) values ​​for the uplink and downlink, between The wireless device and network (metallic, Radio Access Network Node), Network Node 5

Centralized (CN)) for use in the transmission of data (for example, signals indicating a control level or overloading of a user-related level).

TELEFON ^ TIEBOLAGET LM ERICSSON (PUBL). pp SABA & CO., Casablanca (SOIXANTE DEUX PAGES)

Mk

39581 Bl

Pray the full ί,

Claiming precedence

This request is called the primacy interest of the US Temporary Application No. 62 / 016,558 filed on June 24, 2014 and the US Temporary Application No. 62 / 107,847 'filed on January 26, 2015.

Technical field

The current disclosure relates to the transmission and reception of a video to a network and a wireless device and, more specifically, technologies to improve the coverage of a video based on the exchange of information about the state of a video between a network and a wireless device in order to repeat data transmissions on a radio interface between the network and the wireless device.

Background of the invention

The following terms and conditions are defined, at least some of which are indicated in the following description from the current statement.

<td>The project of the third generation company</td><td>3GPP</td>

<td>Channel authorization channel</td><td>AGCH</td>

<td>An integrated application house</td><td>ASIC</td>

<td>Naldeth Control Channel</td><td>BCCH</td>

<td>Base station controller</td><td>BSC</td>

<td>A subsystem for Asdaada Station</td><td>BSS</td>

I

39581 Bl cc

CN

DSP eDRX

EDGE

Moving

EGPRS eNB

E-UTRA

VCCVA

GSM

GERAN

I \ loT

LLC

MME

M2c

NAS

Coverage category

Central network

Throw signal processor

Extended offline reception

Global system for expanded mobile communications coverage 5

Technology to improve data rates for the development of the global communication system

Improved public service for radio broadcasting

Node B is Solid

ZDGO Access to the Global System - Developer 10

Frequency correction channel

Global system for mobile communications

EDGE / GSMJ Radio Access Network

International mobile phone identity

Internet of Things 15

Logical Link Control

Mobile management unit

Machine-type connections

Non-access chip

-39581Β1

<td>Long term development</td><td>LTE</td>

<td>A justified control channel</td><td>PACCR</td>

<td>Free bumper runs</td><td>PDN</td>

<td>Data packet traffic channels</td><td>PDTCH</td>

<td>Protocol Data Unit</td><td>PDU</td>

<td>Random access channel</td><td>RACH</td>

<td>Radio access knot</td><td>RAN</td>

<td>Audio access technology</td><td>RM</td>

<td>Talk to the muddy area</td><td>RAU</td>

<td>Radio coverage category</td><td>RCC</td>

<td>Radio connection control</td><td>RIG</td>

<td>Microcontroller</td><td>RNC</td>

<td>Control source for audio</td><td>RRC</td>

<td>Mormon channel</td><td>SCH</td>

<td>GPRS Send Support Node Service</td><td>SGSN</td>

<td>System information</td><td>SI</td>

<td>Temporary hotlink identifier</td><td>TLII</td>

<td>User equipment</td><td>UE</td>

<td>Uplink</td><td>III</td>

I

39581 Bl

UMTS

WCDMA

WiMAX

Global mobile communication system

Multiple access, split broadband code

Common global communication via microwave

The predicted scattered ubiquitous scattering of wireless stereos used in what is known as a machine-type communication (MTC) will place radio stereos outside the normal radio coverage of pre-existing Zdi networks, such as in basements and similar locations. One way to improve Zedeo coverage is by extending the Zedio Access Network infrastructure, as if by adding additional Basic Radio Station Equipment (RBS). This, however, can very quickly lead to an irrational investment effort and may not be acceptable to operators.

An alternative approach would be to add additional equipment by keeping the existing Zune access network infrastructure unchanged but instead improving the radio coverage through new Aral and Zune reception technologies as well as new Zune source management algorithms. The approach is being discussed

The former is in the wireless industry and is subject to a standardized effort, for example, in the Third Generation Partnership Project (3GPP) as described in Technical Register 36.824 3GPPTR 1.0.0 VI, Direction: (Evolved Universal Terrestrial Radio Access (Ε-UTRA LTE coverage enhancement) Business Class GP-14O421 was described at Meeting No. 62 of iPad 2SG-GERAN 3GPP, Mining New Study Item on Cellular System Support for Ultra Low Complexity and Low Throughput Internet, .of Things

While there are many techniques that can be used to improve video coverage, one of these is

The techniques are to improve Zido coverage by using frequent transmissions. The repetitive transmission technology is currently being considered in the context of the standardized work in 3GPP TSG RAN, as described in the pure registry 7.0.0.03GPP TR 36.824 which is provided as a reference

MA

39581 Bl

Upward, deactivation, (Evolved Universal Terrestrial Radio Access (Ε-UTRA LTE coverage enhancement) also in 3GPP TSG RAN as described in the technical record TR 45.820 V1.3.03GPP, Directional Cellular System Support for Ultra Low Complexity and Low Throughput Internet of Tilings.

One of the problems seen in the pre-existing solutions associated with the frequent earning technology 5 described in the technical journals presented as a reference above is that the device is not

ASCII nor the network, in this case, the ZN access network node responsible for repeated transmissions (full, node B evolution (eNB) in long-term evolution (LTE), the ZN network controller (RNC) in 3G, or base station controller) BSC (in 2G), be aware of the applicable RCC coverage class when transmission of uplink data or uplink 10 downlink started for wireless device. This may, to a large extent, result in either very little or too frequent redundant transmissions during the initial phase of data transmissions with the wireless device (fluid, period of time during which RCC information about the wireless device is not known by the RAN111 node). For example, too little 'repetitive transmissions' may be applied to the transmissions, which results in a failed data transmission, according to an incorrect initial estimate of a number of Lazy loop transmissions. Then we may follow up with another set of repetitive transmissions depending on a better understanding of the necessary number of repetitive transmissions (eg, inferred from transmission of failed data) but they still lead to ineffective use of the rare ZO source. Alternatively, many transmissions may be applied initially

Repeated over Earbat, which leads to ineffective use of rare radio sources, in addition to a network interface, a lot of energy consumption, to another. 20

Knowing that a large portion of the applications associated with MTC (including Object Orientation (ΙοΤ)) will be used principally for small amounts of data (for example, ammeter data, IRS sensor data, etc.), you will have an improved mechanism for determining The number of repetitive transmitters needed precisely to and / or from a wireless device is very valuable if not a prerequisite for achieving efficiency during the initial transmission phase of the downlink or uplink data 25

MA

39581 Bl

Between the 'RAN' node and the wireless device. This and other demands are addressed by the current disclosure.

The US US 2004/0098761 منش1 aspiration is revealed by him and a device to improve the coverage of the most popular machine-type communications (MTC). In one embodiment, the MTC (wireless transmitter / receiver) device may provide a node B developer (eNB) node for coverage 5, which may include one or more PRACH primary transmission power, signal power Measured receiving reference reference (RSRP ^ / RSRQ quality used for selection of appropriate cells, primary repeat number and retransmission or number. The downlink physical control channel (PDCCH) and the downlink physical sharing channel (PDSCH) required to receive random access reception (RAR) have increased 10.

General description of the concealed

A wireless device, RAN node, CN node, and various methods to address the aforementioned requirement are described at least in the Eligible Protection elements. Useful embodiments of the wireless device, the RAN node, the CN node, and the various methods in standalone protection are additionally described.

In one aspect, the current detection provides a wireless device that calms to communicate with the RAN node and node 15CN. The wireless device includes a processor and memory cards that store executable instructions by the processor, where the processor is associated with the memory to execute instructions that are executable by the processor, so the wireless device Outright to perform first reception, estimation process, planning process, transmission, and second reception process. In the first receiving operation, the wireless device is in operation to receive, from a node (RAN), a control channel. In the estimation process, the wireless device is operational to estimate the status of 20 radio for an uplink, depending on the signal quality of the received control channels. In the planning process, the wireless device is ready to plan the estimated downlink radio condition on one of several downlink radio coverage category (RCC) values. In the transmission, the wireless device is ready to transmit, to the RAN node, a first message that includes

MA

39581 Bl

Ed RCC value for downlink only. In the second reception process, the wireless device is operational to receive, from the RANJI node, a second message. It has a number of downlink repeat-frequency transmissions depending on the RCC-B value of the only downlink. The wireless device will be configured to function as demanded with the most recent technical methods by effectively utilizing rare zip sources, reducing network interference, and reducing the wireless device's 5 battery power consumption, to another, during the initial transmission of data.

On the other hand, the current detection provides a method in a wireless device that has cooled down to communicate with the RAN node and the CN node. The method includes a first reception step, an estimation step, a planning step, a transmission step, and a second reception step. In the first receiving step, control channels are received from the node

RAN. In the estimation step, a downlink ZDO is estimated based on the signal quality of the received 10 control channels. In the planning step, the downlink estimated radio condition is mapped to one of several downlink radio coverage (RCC) values. In the transmission step, a first message is sent to the 'RAN' node, where the first message includes the only downlink RCC-iï value. In the second receive step, a second message is received from the 'RAN' node, where the second message has a number of downlink transmissions 15 based on the only downlink □ RC value. The method will address the demand for the most recent technical methods by effectively using rare ZEDO sources, reducing network interference, and reducing the battery power consumption of the wireless device, to another, during the initial phase of data transmission.

Also on the other hand, the current detection provides a ready RAN node to communicate with a wireless device and one or more 20 and CN nodes. The 'RAN node contains a processor and one memory that is stored that can be stopped on the processor by the processor, where the processor is associated with at least one memory to implement the instructions that can be stopped by the processor, so the RAN node is ready to work to perform the first transmission, reception A second transmission. In the first transmission, the RAN node is ready to send, to one or more wireless devices, control channels. In the reception process, it is 25

MA

39581 Bl

The 'RAN node' is ready to work to receive, from a wireless device, a first message that includes a first value for the Zink Zip Cover Category (RCC). In the second transmission, the 'RAN node' is ready to send, to the single wireless device, a second message that is queued according to the first RCCJ downlink value included in the first message received from the single wireless device. The! RANJ node will address the configuration to function as demanding with the most recent technical methods 5 by effectively using rare ZEDO sources, reducing network interference, and reducing battery power consumption of the wireless device, to another, during the initial data transmission phase.

On the other hand, the current detection also provides a way in the RAN node to calm down with one or more radio devices and the CN node. The method includes a first transmission step, a reception step, and a second transmission step. In the first transmission step, control channels are sent to one or more wireless devices. In the receive step, a first message is received from one of the wireless amplifiers, where the first message includes a first value for the downlink radio (RCC) category. In the second transmission step, a second message is sent to the single wireless device, where the second message is repelled according to the first downlink RCC d value included in the first message received from the only wireless device. The method will address the requirement with the most recent technical methods, about 15

By effectively using rare audio sources, reducing interference with the network, and reducing battery power consumption of the wireless device, to another, during the initial phase of data transmission.

On the other hand, too, the current disclosure offers a CN node to communicate with several wireless devices and an RAN node. The CN ed node contains a processor and at least one memory that stores venomous implements by the processor, where the processor connects with a single memory on the food to perform the 20 viable ambiguities of the palm by the processor, thus, the node, CN open to work to perform the reception process, storage process, And the sending process. In the receive process, the CN1 node is open to receive, from a 'RAN node or a wireless amplifier', a message that includes a Radio Coverage Class (RCC) value for a link

Downlink and RCC value for an uplink attached to a single wireless device. In storage, the 'CNJ' node is ready to store the downlink RCCJI value and the value of 25

MA

39581 Bl

! RCCJ for the uplink associated with the single wireless device. In the transmission process, the CNJl node is ready to operate for a liter, to the RAN node, a recall message for one wireless device when payload for a downlink becomes available for one wireless device, where the recall message includes the downlink RCC value and the RCC-قيمة value for the associated uplink With the wireless unit. The CNiSI node will address the configuration to operate in the required manner with the latest technical methods by using efficiently radio source sources, reducing network interference, and reducing battery power consumption of the wireless device, to the next, during the initial phase of data transmission.

On the other hand, the current detection also provides a method in the CN node configured to communicate with multiple wireless amplifiers and the RAN node. The method includes a reception step, a storage step, and a transmission step. In the receive step, a message is received from 1-RAN node or one of the wireless amplifiers, where the message includes a RCC value for a downlink and an RCC value for an uplink associated with a single wireless device. In the storage step, the downlink RCC value and the uplink linked RCC value are stored from the single wireless device. In the transmission step, a single wireless device callback message is sent to the RAN-عقدة node when a downlink payload becomes available for the single wireless device, where the recall message includes the downlink RCC value and the uplink RCC value associated with the single wireless device. The method will effectively address the demand for the most recent technical methods by utilizing rare ZEDO sources, reducing network interference, reducing battery power consumption of the wireless device, and so on, during the initial phase of data transmission.

You will borrow additional aspects of the implant, by running images, in the detailed description, shapes and any subsequent protections, and they will be derived from the detailed description intuitively, or may be learned by applying the implant. It should also be understood that each of the previous general description mentioned and the following detailed description are representative and neglective only, and not to reduce the implantation as revealed.

39581 Bl

Brief description of rum

A more complete understanding of the present invention may be obtained by referring to the following detailed description when it is taken in combination with the fitting rum:

Figure 1 is a graph of an analog wireless network according to an embodiment of the current disclosure;

Fig. 2 is a graph of the signal flow indicating the RCC value setting for downlink 5 that occurs during a modern transmission of a wireless device in accordance with an embodiment of the present disclosure;

3 is a graph depicting different wireless amplifiers with different RCC values ​​for a downlink that is handled by the same source assignment reflux according to an embodiment of the present disclosure;

Figure 4 is a signal flow graph showing the RCC value determination for an uplink that occurs during a recent transfer of a wireless device according to an embodiment of the current disclosure; 10

Fig. 5 is a signal flow graph showing an interconnected operation with a finished transfer of a wireless device in accordance with an embodiment of the present disclosure;

FIG. 6 is a flow diagram of a method implemented in a wireless device according to an embodiment of the present disclosure;

FIG. 7 is an organizational graphic support showing the minimum of a Centley wireless device in accordance with an embodiment of the present disclosure 15;

Figures 8A-8B are process flow charts of a method implemented in the RAN node according to an embodiment of the present disclosure;

Figure 9 is an organizational chart showing structures from a representative RAN node according to an embodiment of the current disclosure; 20

Figure 10 is a flow diagram of a method implemented in the CN node according to an embodiment of the present disclosure;

MA

39581 Bl

Figure 11 is an organizational chart showing structures of the CN node according to an embodiment of the present disclosure;

Fig. 12 is a signal flux graph indicating additional steps in the determination of an RCC value for an uplink that occurs during the recent transfer of the wireless device as shown in Fig. 4 in accordance with another embodiment of the current disclosure;

Figure 13 is a process flow diagram that shows additional steps in the method implemented in the wireless device shown in Figure 6 in accordance with another embodiment of the present disclosure; and

Figure 14 is an flowchart. It illustrates an additional step in the method implemented in the CN node shown in Figure 10 according to another embodiment of the present disclosure.

Detailed description of the invention

To describe the technical features of the current disclosure, a review is initially provided to describe an analog wireless network that includes multiple wireless components, multiple RANs, and a CN node, each of which is configured according to the current detection (see Figure A). Then, a review is provided to explain the basic techniques and use Cases executed by wireless device, RANJ node and node; CNJ according to the current disclosure (see Figures 2-5). Next, it is introduced to explain in detail the most diverse technologies implemented by each wireless device, the RAN node and the 'CNJ' node according to the current disclosure (see Figures 6-11). Finally, a presentation is presented to demonstrate how the network can be updated using coverage category information by the wireless device in accordance with another embodiment of the current disclosure (see Figures 12-14).

Network no¹1&gt; *. 191960 100

11

I

39581 Bl

With reference to Figure 1, wherein an analog wireless network 100 is shown according to the current detection. The Anfal wireless network includes 100 multiple RAN nodes 1021 and 2 2 10 (two shown only) and a central network 106 (for example, node 107 CN) that interferes with multiple wireless amplitudes; 104, 1042, 1043.104300.0 The wireless network also includes 100 elements

Numerous are well known, but for clarity, the necessary elements are described here to describe the detection of Detection 5

Current only. In addition, the 100 wireless network is described as a GSM / EGPRS 100 d wireless network. However, those skilled in the art will without ever hesitate that the current detection techniques applied to EGPR / LRâGSM 100d wireless network are generally applicable to other types of wireless communication systems, including, for example, WiMAXj, LTE, 10 systems. WCDMA

We include the wireless network 100 nodes 1021 RAN and 102 (two shown only) that provide network access to wireless devices 1041; 1042, 1043 ... 104. In this example, the 102nd RAN node provides network access to the wireless device 1041 while the 'RAN 022 node provides a network biology for wireless 1042, 1043 .... 104 nodes 102) connect to RAN and 1022 with central network 106 (for example, centralized network 106D EGPRS) And, in particular, 15 with node 107 CN1. The central network 106 connects to the external packet data network (PDN) 108, such as the Internet, and server 110 (only one shown). Wireless devices may connect 1041; 1042, 1043 .... 104 η with one or more servers 110 (only one shown) connected to the central network 106 and / or 108 PDN.

Wireless loudspeaker may indicate 1041, 1042, 1043 ... 104!

(User) that interconnects with the 100 wireless network, we may refer to either an MTC device or a non-MTC device. In addition, the term radios generally increase the term

For the term user equipment, or UE, this term is also used by the Third Generation Partnership Project (3GPP), and it includes cough wireless devices, such as softphones, cell phones, smartphones, tablets, and personal-assisted wirelessly assisted devices, in addition to cards or 25

MA;

39581 Bl

Units designed to attach to or insert into another electronic device, such as a personal computer, an ammeter, etc.

Likewise, it may generally refer to RANJ 1021 and 02A nodes to a base station in the wireless network 100, and may refer to RANJ 1021 and 02A nodes that are controlled by a physically visible radio controller in addition to more independent loop points, denoted by what is called node 5 Bs Matar (eNODEBs) in long-term evolution networks (ITE).

Each wireless device may include [104, 1042 '1043 .... 104 receiver and transmitter circuit 1101, 1102, 110 .... ΙΟ for communication with nodes 1021 RAN1 and 102, processing house A 112, H 112, and 112 .... 12 for Processing the signals transmitted from and received by the transceiver house 1101 '1102, 1103 ... 110 and to control the operation of the wireless device 10 corresponding to 1041, 1042, 1043 .... 104. We may include the 1101 transceiver house,

10, 1103.10000 SDL 1141, 1142, 1143 ... 114 and the following 1161, 1102, 1163 .... 116, which can work according to any standard, such as the GSM / EDGE ED standard. Processing house may include 1121, 1122, 1123 ... 120 treatments 118, 1182, 1183 ... „118 and 1201, 120 ... 1203, Ο2Ο2 in order to store the programs for controlling the operation of the wireless device 15 corresponding to 104; 1042, 1043 .. .11140. We may include the Scheffer program code for performing the parts as described here for gears 6 and 13.

Each RAN node 102 and 022 may include a transmitter and receiver circuit 122 and 222 for communication

With wireless bands 1041, 1042, 1043 ... 104 η, treatment plant A124 and 1242 treatment

The equalizers transmitted from and to the receiver in the center of the transmitter and to receive A22 1 1222 and for control 20

By operating the compatible wireless access node 1021 and 1022, an interconnection of the A126 and 1262 networks to communicate with the biliary network 106. We may include the transmitter and transceiver circuit A122 and 1222 transmitter A128 and 1282 and it will accept 130A and 130A, which may operate according to any standard, for example, standard

Ed GSM / EDGE. We may include treatment house 1241, 1242, processor 132, 132 and memory

A 134 and 342 storage coding software to control operation of the wireless access node A 102 102

MA 39581 Bl

And 02a. Scheffer may include Scheffer to perform the actions as described here for Figures 8A-8B.

Node 107 CNI (for example, 107 MME, 107 SGSN) may include a transceiver circuit 136 for communication with nodes 10_1021 RAN 102, processing house 138 for processing the bib signals from and for reception by the transmitter house and for reception 136 and for the regulation of operation of nodes 5 102} RAN and 102, connection 140 network interfaces for communication with 'RAN 102' and '02A' nodes. The transmitter and receiver house may include 136 transmitters 142 and future 144, which may operate according to any standard, for example, the GSM / EDGE standard. Processing house 138 may include 146 processors and 148 memory storage codecs to control operation of the '107 CN' node. Script code may be included for performing the procedures as described here for Figures 10 and 14. 10

Basic technology and humiliations 1 60 AH 1 AM * RJ. R of detection

The current disclosure introduces a new mechanism for improving ZEDO coverage based on the exchange of ZDO status information for uplink and downlink, referred to as Radio Cover Category (RCC) values, between wireless device 04a (for example) and to network 100 (for example, RANI node 102f / Or node 15 107 CN111) for use in transmitting data (for example, a signal that is at a control level or a transmission that is speaking at a user level). It will be noted that other wireless devices may feed 1041, 1043 ... 104 and 1021 RAN node from the current detection. The technologies announced depend on the estimated exchange of RCC values ​​between the 100 network and the 104 wireless device used to apply a number (eg, predetermined number) of repeated Earlinks on the radio 20 link. Downlink RCCll values ​​may be denoted (for example, from the perspective of wireless device 04A) and uplink (for example, from a network perspective 100). RCC111 values ​​may be stored in the appropriate network nodes of the RAN node 02 and node (107 CNJ) and in the device

MA

39581 Bl

Wireless 2 e 0a is used for determining the appropriate number of repetitive emissions for subsequent data transmissions, for example, in callback cases.

The technologies advertised with 1 may be implemented for one or more of the following principles:

0 Radio cases for uplink and downlink may be categorized between knots

2 RAN11 E 10 and radios 1042 are given, may be organized, or divided into a range of 5 RCC values.

0 The value of the given RCC is plotted in a number of repeated transmissions. The layout of each RCC value for a specified number of repeatable transmissions can be standard and known to the 100 network (eg RAN node; 102 and / or node 107 CN) and for the wireless device 1042. Hence, it can trigger

The value of a given is buried or clear to a number of repeated transmissions and therefore 10 may be known by the entities involved 1022, 107 'and 104 in a specified method. Alternatively, the layout can be adjustable and marked (for example, in System Information) with the entities included 1022,

107, 104.

· The wireless device 042 increases its estimate of its downlink value (in relation to the operation of its RAN node 2 10 / cells) for network 100 in the applicable fragments and / or 15 messages.

0 Node 0 2 2 RAN provides an estimate of the value ^ خ of its uplink material in relation to a specific wireless device 1042 for a wireless device 1042 in applicable fragments and / or messages.

0. Network 100 can store information about uplink RCC values ​​20 and downlink in nodes as Node 1022 RAN and Node 107 CN as this information will be reused in the following Zip Earnings.

0 The 1042 wireless device can store information about the uplink and downlink RCC values, and this information is usually used in the following radio transmissions.

I

39581Β1

0 The 102 RAN node can raise the specified RCC values ​​of the wireless device for the uplink and downlink flush with the specified wireless device 04a to the relevant CN 107 node (for example, 107 MME, 107 SGSN). Alternatively, the wireless device can transfer the specified RCC information via radio 04 to node 107 CN, for example, during a non-access layer (NAS) signal.

0 Nano 2 RAN looping A 0 Number of repeated uplink transmissions on the ZIP interface based on the RCC value specified for the available downlink of the wireless device. A ^ ^ value can be used to determine the number of downlink repeated transmissions based on the last RCC value received from the wireless device 104, the network is circumcised 100 (eg RAN node 102) the downlink RCC value (full, based on uplink radio quality), Or run an average of the received downlink RCC values ​​and / or network 100 (eg RAN 102 node) for the estimated downlink values.

0 The radio device emits a number of frequent uplink transmissions based on the RCC value of the available downlink received from RAN node 02a. The RCC value used to determine the number of repeated uplink transmissions can depend on the estimated RCC value of the last estimated uplink received from the network 100 (for example, RAN node H 102), the wireless device dirty 104 uplink RCC values ​​(for example, based on Downlink Zero Type), or mid-run RCC values ​​for the received uplink and / or wireless device 104 The uplink RCC values ​​are estimated.

0 In the case when the radio 04 makes its first connection with the RAN 102 node after an initial deployment of the wireless device and the power is connected to the field or when the radio device wakes up 04 Performing a system access segment following a sleep period, the radio 04 does not use a number of repeated transmissions when performing the access part Random (for example, sending a first message on a random access channel (RACH), and a channel request message on RACH) may also be based on a separate estimate for the wireless device (1) of an appropriate RCC value for the uplink, or pre-called information RCC wireless device has a suitable uplink.

MA

39581 Bl

0 The network 100 (for example, an O2RAN node) applies a number of sequences based on the RCC stored from the wireless device 1042. This can be applied, for example, when calling the wireless device 1042 or responding to a first message on a random access channel (RACH), as a request message Channel on RACH.

It can make knots 102₂RAN and wireless device D104 know the knowledge about the type of use of the wireless device, for example, it is a stationary device, where it can be returned and face-to-face in the wireless device 1042 In, for example, the data recorded in the network 100 when judging whether or not a number of tetras were applied according to Store RCC.

Referring to Figure 2, there is a signal flow graph that shows the downlink RCC value determination process where it occurs. During the transmission of the origin of a wireless device, it is interfered with the embodiment of the current detection. Before the 1022RAN node is accessed, the 1042 wireless device receives (e.g., snooze) some specific ZDO technology that adjusts the control channels so that, for example, you get the stator with ^ 1022 node (see step 1 for Fig. 2). In the case of the global mobile system (GSM), before the GSM / EDGE access network is accessed, the wireless device will monitor 104 synchronization channels (SCH) and the trigger correction channel (FCCH). After decoding ED SCH, the 1042 wireless device can also decode the System Information (SI) transmitted on the BCCH. Ed BCC, SCH in GSM are constantly transmitted at full power.

The radio 1042 uses the received channel to estimate its downlink radio condition that it tests based on, for example, an received signal strength indication (RSSI), a received received type (for example, decoding type from the SCH and system information), or any Another metric where the radio downlink radio condition is estimated (see Step 2 of Fig. 2).

The radio device 1042 maps the estimated downlink radio condition to one of the multiple downlink RCC values ​​(see step 3 for Figure 2 and for graph A). In this example, an RCC Approved Layout is illustrated where the RSSI value estimated is one of the fooling downlink RCC values. It is noted that 17 RCC values ​​are provided

I

39581 Bl

For the downlink and the number of transmissions for each one z the RCC values ​​shown in Figure 2 (i.e. 1 transmit 2 d, 0 rcc transmissions 4 d, 1 rcc transmissions d 2 rcc, and 16 transmit d rcc

3) For example. In other cases, the downlink RCC values ​​may be less or more and / or the different numbers of transmissions may be accompanied by the downlink RCC values. 5

The radio device sends Tilt 04 202 which guesses the downlink RCC value to RAN 02 node (see step 4 for Fig. 2). More specifically, when the RAN node 02 enters some of the data dilation of the wireless device, the wireless device provides 104 the downlink RCC value specified in the appropriate RRC 202 (for example, channel request message)

202 In GERAN, add 202 RRCConnectionRequest (LET or UMFS) or some 10 queues during which a radio estimator is acquired. The average of the wireless device H 104, where the RCC value for a specific downlink can be connected to the 102nd RAN node (full, I022BSS) is described in the order of the EMP 61/968,621, filed on March 21, 2014, labeled 'ASAP' Accelerated System Access Procedure) '.

RAN node 102 specifies a downlink RCC value to be used for Radio 04 04 device (see step 5 for Fig. 2). It can specify 102 node₂RAN downlink RCC value to be used for wireless device 104 based on: (1) RCC value for downlink first downlink (for example, downlink RCC value from step 4 of Figure 2); (2) RCC value for downlink estimated (For example, based on the uplink ZDO function); or (3) mean operation of the RCC values ​​for 20 previously received first downlink 'and / or downlink RCC values ​​previously estimated. For example, a 102nd RAN node may dirty the RCC value for a specific downlink depending on the uplink zode condition for the wireless device 104₂ This can be combined with the same RCC value as the average for the wireless device 104 when specifying the downlink RCC value to be used for the 04 wireless device. 25

Mk

39581 Bl

Additionally, the specific dialog that was used by the RAN node can be 102h to specify the downlink RCC value used for implementation.

RAN node 102 plans the downlink RCC value with a number of repeated downlink transmissions to be used for the downlink 205 message (s) to the wireless device 104 (see step 6 for Figure 2 and graph والر; 5

Note: The RAN node 102 also plans the downlink RCC value received in step 4 of Fig. 2 to a number of downlink downlink transmissions to be used for downlink message 204 to the wireless device H 04a). Consequently, the RAN 102 node sends to the 104 wireless device a message 204 (for example, an immediate assignment message) that is magnified in accordance with the downlink RCC value received from the wireless device 10h 04a (see step 6a of Figure 2). Message 204 will include the downlink RCC value specified for the RAN node from step 5 to Fig. 2 if it is more different than the downlink RCC value for the wireless device in Message 202. After that, the RAN node 102 h is transmitted to the wireless device 104₂ The following downlink 205 (s) message (s) has a number of downlink repetitive transmissions based on the RCC value of the downlink RAN ​​node 15 (see step 7 for Figure 2). Essentially, in the event that the RAN 102 node decides to use the downlink RAC value that is more different than the downlink RCC value that was transmitted by the wireless device H 104 in step 4 to Figure 2, then this RAN 102 node will refer to the wireless device H 104 with reference to the RCC value Of the downlink defined in Message 204 of the first downlink that is 20

Always show it with repeated transmissions according to the downlink RCC value by radio 104 in step 4 of Fig. 2.

It should be noted. That the number of trivialities can be. Different, for example, dependent on the logical channel that is attached to Message 205 or 205 for connection 205 to be sent to the wireless device 104h. For example, in GERAN, RAN 102 node may be applied 25 25

MA

39581 Bl

First number of repeated transmissions according to the RCC value of the specified downlink when the current assigned RNA 204 is transmitted on the access grant channel (AGCH), but a second number of tetras is applied, for example, when the power packet control of advanced message 205 is temporarily applied to the accompanying control channel of the beam (PACCH). Likewise, in RAN 102 node the number of tetany used for signal zip carriers should be different from the number used for zip carriers.

It should be noted that when a plan that relies only on synergy is used, and when multiple wireless wires 1042, 104 and 04A (for example) are routed by message 204 or 205 itself, there is no need for all wireless wires 1042, 104 and 104 to have a special RCC value. With the same downlink. Alternatively, the number of tefles used by the wireless device can be determined as 04A (for example) as it has the highest downlink RCC value (i.e., the worst coverage). An example of the shape of this pilot is illustrated in Figure 3, where the wireless wires 1042, 104 and 04A are routed by similar similarly designed pilot 205. In this example, the designated source 205 pilgrims are jugged on the same AGCH as 16 times due to a coverage class for the wireless device ¢ 104 (planned 16D tetras), whereas the 1042 and 04A radio sorts that have lower coverage classes (i.e., require a little tetanus) will be It is subject to the same message source Metal 204 segment after decoding the specific number of the techeres according to their RCC coverage class (i.e. 4 tetrated for the wireless device 1042 and 8 iterated for the wireless device Y 104).

In some embodiments, a number of similar repetitive emissions may be tolerated according to the RCC value of the wireless device's downlink (that is, it may be 'different' depending on the standard logical channel) on any queues of 204 for the following downlink, messages of 204 controllers or users, even Node 1022 RAN specifies, for example, during the ACK / NACK or wireless-assisted measurement report information, 104 where the RCC value for a different downlink we should use for the 1044 wireless device (see step 8 of Figure 2). Signal can be damaged

20

I

39581 Bl

Any change in the RCC value of the 'downstream' (number of repeated transmissions) by the I022RAN node in the control plane either clearly by a specific or implicit trigger such as during a free signal to the wireless device ¢ 104 (see step 9 for Fig. 2). When the obvious effects change in the downlink RCC value, the number of repeated transmissions used by its RAN node 2 is determined using the downlink RCC value done 5

Stored for the wireless device 0m2 prior to making the change for the downlink RCC value. In relation to the downlink, the 1022 RAN node can estimate the RCC value applicable for the uplink for the given 1042 wireless device. This process is described later with respect to Figure 4.

Referring to Figure 4, there is a signal flow graph that illustrates the process of determining the RCC value of 10

An ascending compass that occurs during the transmission of a wireless device in conjunction with the embodiment of the current disclosure. RAN node 102 receives message 202 (for example, channel 202 request messages, message 202 RCC communication request) on the RACH entry from wireless device 1042 (see step 1 for Fig. 4). For the case when the wireless 1042 device makes its first connection with the RAN 1022 node after the initial development of the wireless device and the power is connected to the field or when directed to perform part 15 and a slot tracking system, the wireless device 1042 uses a number of repeated recipients when a reliable transmission can be relied upon Streams for Channel 202's request message (Message 202 requests

RRC communication) on the RACH Ed, for example, on independent wireless assistance from the appropriate uplink RCC value (such as A, based on the independent downlink radio condition from step 2 in Figure 2) or preset summons 20

(See note 1 for Berth 4).

The 1022 RAN node estimates the RCC value for a quality uplink (for example, RSSI) from

The received message 202 (see Step 2 for Figure 4 and Diagram A). In this example, a certified layout measure ^ RSS is illustrated where the RSSI value is mapped from the estimated uplink ZDO conditions with the received message 202 for one of the four RCC values ​​25

MA 39581 Bl

With different uplink. It is noted that the number of uplink RCC values ​​and the number of entrails are supplied for the uplink RCC values ​​shown in Figure 4 (i.e. 1 transmit 1 d2, 0 RCC transmissions d4, 1 rcc transmissions d2 rcc, and 16 transmit 3d RCC) as examples. In these cases, the uplink RCC values ​​may exist fewer or more and / or they may be associated with different numbers of emissions with the uplink 5 RCC values.

RAN node 02 adds (entries, include) the RCC value of the uplink of the locker 204 (instant filler filler 204 or any other RRC 204 message) Capacity of the channel 202 dialing message) bound to a single wireless device 1042 (see step 3 for Figure 4). The uplink RCC value can be connected to the wireless device 1042, for example, the last 10 RCC value for the uplink by node 1022 RAN, the run of the previous estimated uplink RCC values ​​for the uplink, and / or the downlink used or estimated RCC values For this specified 1042 wireless device.

The wireless device 1042 plans the uplink RCC value in a number of iterations and ascending units (see step 4 for Fig. 4 and graph Ά). Consequently, before the end of Anfal, 15, the wireless device 1042 applies a number of uplink loops to all 206 messages of the next uplink transmitted on the RACH ad and to the uplink from any subsequent certain packet switching channels (PDTCHs) or a specific control channel package (PACCHs) To the RAN node R 02A (see step 5 for Figure 4). Optionally, the wireless device 1042 may continue to follow the communication terminal to use its h ^ value for its stored uplink (see 20 step 9 of Figure 4) for the next 202 link for the uplink linked to the RACH ed (see step 1 for figure 4) if they are confused Within a limited time period, most of the recent spin-offs follow a ^ h value of the uplink in the paddle 204 (see step 3 of Figure 4).

39581 Bl

The wireless device continues? 104 to use the uplink RCC value for uplink 206 messages until the RCC value for a new uplink is received from RAN node 02a, for example, either in a control message or in an embedded method (for example, ACK / NACK for free uplink we refer to flat redundancy of failed uplink). 5

RAN node Q102 can apply applicable RCC values ​​for uplink and downlink together with a temporary logic zero selector (TLLI) or other relative local locator from the wireless device H4a (see step 7 for Figure 4); Note: Step 7 is also being formed Typically after or as part of step 2). Consequently, it can transmit on the communication terminal (for example, RRC deflection) between RAN 102 node and wireless device 104, RAN 102 node 10 applicable RCC values ​​for uplink and downlink forward with TLLI or other local relative identifier from wireless device H 104 to Node 107 CN (see step 8 for Figure 4). For example, a 102nd RAN node can include uplink and downlink RCC values ​​as supplementary information when sending received messages 206 from step 5 to ED 107 CN.

Alternatively or alternatively, the applicable wireless device can 104% test the applicable RCC values ​​15 for the uplink and downlink together (see step 9 for figure 4; note: step 9 can also occur immediately after step 1 and step 4). For example, the wireless device 104h can transmit RCC values ​​for both uplink and downlink to node 107 CN, for example, by signaling the NAS (for example, inside a periodic update message (RAU)) (see step 10 for Fig. 4). In this case, in the case of the radio 104, perform step 10 20

Consequently, RAN node 02 does not need to include RCC values ​​for uplink and downlink as complementary ranges when sending received messages 206 from step 5 to ED 107 CN.

Referring to Figure 5, there is a signal flow graph that illustrates the process associated with a wireless peripheral transmitter together with the embodiment of the current detection. Node 107 CN equips RAN 102 node with output RCC values ​​for uplink and downlink for wireless device 104 25

I

39581 Bl

Khayer, next wireless terminal transmitter. More specifically, node 107 CN sends a callback 208 with the delayed RCC values ​​for the uplink and downlink when it becomes a downlink payload for the radio 04a (see step 1 of Fig. 5). Teler: RAN 102 node and / or wireless device 104 at the end of the previous communication Ra RCC values ​​for uplink and downlink to node 107 CN (see steps 8 and 10 of Figure 5

4) .

The RCC values ​​can be transmitted for both the uplink and downlink together in Callback Message 208 with a customer stamp indicating the R where the RCC values ​​were raised to node 107 CN and indicating cell localization information about the cell where the wireless device was connected 04₂No, when these RCC values ​​were obtained. This information can also provide terrified additional information in Switch 10 Recall 208 to enable the RAN node H2 02 to board reliability of the uplink and downlink RCC values. The RCC values ​​for the uplink and downlink can be interfered with in the calling bin 208 using the Relative Interface, Filled, «GbUA.

RAN 102 node can be used (e.g. BSC 102 in 2G, RNC 102 in 3G, or ED 102₂eNB in ​​LIE) Downlink RCC Received Value to Determine the Frequency Number 15 Recall 208 'Where It Was Relayed to Wireless 04₂A) See step 2 for the figure

5). So knot is 102₂ RAN sends 208 'calling transmitter using the specified calling synergy number to the wireless device 04₂A (see step 3 for Figure 5). Moreover, it can add knot 102₂ RAN to the RCC value of the uplink to the calling pager itself 208 ', thus enabling the radio 04₂Plan and use a specific number of ascites 20 of the uplink during the random-access segment fracture to transmit an identical recall response 210 to the RAN node 102 (see step 4 and 5 of Figure 5). Alternatively, a 102RAN node can be specified where the RCC values ​​for the uplink and downlink received from node 107 CN are ignored, thus in this case the calling transmitter can be 208 'sent to the wireless device 04₂The maximum number of oils can be max. 25 mA

39581 Bl

The RCC value of the uplink connected in the calling pager 205 'to the wireless device 1042 to the higher value (that is, the number of loops maximum) (see Note 1 to Fig. 5). The following behavior with the power of the wireless device 104 and the 1022 RAN node may be similar as described above with reference to the wireless device with a carrier constructed in FIGS. 2-4.

Disclosed attachments A08H01 by devices

With reference to Fig. 6, there is a process flow chart of the 600 method of an ascendant in a 1042 radio (for example) in conjunction with the embodiment of the present disclosure. At step 602 'the wireless device 1042 (habitat, watch) receives a few RAT control channel groups in order to, for example, obtain the pinch with a 1022 RAN node (see step 1 for Fig. 2). At step 606, the wireless device 1042 plans a downlink ZLO status based on the signal type (for example, RSSI) from the received control channels (see Step 2 for Figure 2). At step 608 'the wireless device sends 1042 a message 202 (the same is a channel request message 202) as it includes the downlink RCC value to the RAN node 102 (see step 4 for blockage 3). In case the message 202 (for example, channel request message 202) is the first connection of the wireless device with node 1022 RAN, thus it can preset the wireless device_H04A at step 608 'is a dirty number of repeated uplink transmissions (for example, depending on the status of the dirty zipper or preformed information) to be used when sending message 202 to node 1022 RAN (see Note 1 to Fig. 4).

At step 610 'the wireless device 1042 receives a downlink transmitter 205 (for example, an immediate assignment transmitter 204) that has a number of downlink recursions and includes an uplink downlink RCC value (see step 7 for Fig. 2 and step 3 for Fig. 4). Reminder: The number of downlink transmitter repeated transmissions in the downlink transmitter 204 is dependent on the downlink RCC value sent by the wireless device

25

MA

39581 Bl

04A in Message 202 (see Step 4 of Figure 2 and Step 1 of Figure 4). Additionally, condom 204 can include the specified RCC downlink value for the RAN node where it has been used for the following downlink 205 part (see step 6a of Figure 2). In Fig. 612, the device plans an ASCI 104 uplink RCC value (included in condom 204) to determine the number of ascending joints (see step 4 of Figure 4 5).

And the graphite عم). At step 614, the wireless device 04 raises the antenna for the uplink 206 where it is threaded according to the number of repeated interconnections of the uplink to the node 02 RAN (see step 5 in Figure 4). The wireless device 04 will continue to use the uplink RCC value for next uplink 206 loops until the new downlink RCC value is received from RAN node 102 (see 10, Step 6 of Figure 4). At step 616, the wireless device stores 104 applicable RCC values ​​for the uplink and downlink together (see step 9 for Figure 4). At step 618, the wireless device 104 may switch the RCC values ​​for both the uplink and downlink to node 107 CN (see step 10 for Fig. 4).

At step 620, the radio device 04A from RAN node 02 will accept where condom 15 has a call back 208 'number of downlink tifts and uplink RCC value (see step 3 in Figure 5; reminder: a call 208 will be confused when CN 107 will have New downlink payload for wireless device (104). The number of repetitive downlink tufts used in the calling caller 208 may be pre-dependent on the downlink RCC value transmitted by the wire device switches H 104 or node 20

RAN 02 to node 107 CN (see steps 1-2 for Fig. 5) or the downlink number for the downlink as a maximum (see Note 1 to Fig. 5). The RCC value for the uplink in the calling pad can be 208 'is the RCC value for the uplink previously sent by the wireless device 104 or RAN node 102 to node 107 CN (see steps 1-2 for Figure 5) or the number of pomposes of the uplink as a limit Maximum (see 25

Mk

39581 Bl

Note 1 to Figure 5). At step 622, the wireless device 1042 plans the uplink RCC value to determine the number of specified uplink-specific iterations to use a number of uplink-specific iterations to use when sending the corresponding callback response 210 to node 1022 RAN (see step 4 for Figure 5). At step 624, the wireless device sends 210 to a callback response 210 using the specified number of tetris for the uplink to node 1022 RAN (see step 5 for Fig. 5). For a more detailed discussion of steps 602, 604, 606, 608, 610, 612, 614, 616, 618, 620, 622 and 624 refer to Figures 2, 4 and 05

With reference to Fig. 7, there is a block diagram showing the lower bound of the representative 1042 wireless device that is configured to interact with node 1022 RAN and node 107 CN in combination with the embodiment of the present disclosure. In an embodiment, the radios 1042 may include a first-footed 707 male, a 704-rated recognition man, a 706 first-order man, a 706-first transmitter man, a 710 second-foot man, a 710-second-leg-end man, a-7-second-foot man 714; a storage-man 716; Third 718; third transmitting 720; third planning buffer 722; and four transmitting wheel 724.

The first receiver buffer 702 is configured to accept (for example, keep an eye out) a few RAT control channel groups so that, for example, the choppy gets with the radio interface RAN node 1022 (see step 1 for Fig. 2). The 704 stirrup is configured to estimate the downlink radio condition based on the signal type (for example, RSSI) from the received control channels (see step 2 for Figure 2). The first planning plane 706 is initialized for the downlink estimator radio condition planning for one of the multiple downlink RCC values ​​(see step 3 for Fig. 2 and graph A. A first transmission wave 708 is initialized to send a 202 message (e.g. channel request message 202) indicating Downlink RCC value to Node 1022 RAN (see step 4 for Fig. 2). The first transmission of transmission may include 708 identification detection 708 that has been detected to determine a dirty number of repeated uplink transmissions (for example, dependent on the downlink's estimated radio condition or predefined information) to be used when transmission

1Ί

MA 39581 Bl

Message 202 to RAN node 02a In the case of message 202 (for example, channel request message 202) is the first communication of the wireless device with RAN node 102 (see Note 1 to Fig. 4).

The second receiver line 710 is configured to receive a downlink 204 message (for example, the instant assignment message 204) has a number of downlink recurring transmissions and we refer to the RCC value for an uplink (see step 7 for Figure 2 and step 3 for Figure 2). 5

The number of uplink downlink transmissions in message 204 for the downlink is dependent on the RCC value of the downlink transmitted by the wireless device medium 104 in Message 202 (see step 4 of Fig. 2 and step 1 of Fig. 4). Additionally, Message 204 can include the specified RCC downlink value for the RAN node as it can be used for the following 205 downlink messages (see step 6a to Figure 2). The 10-second planning sphere 712 is configured to map the uplink RCC value (included in Message 204) to determine the number of uplink stuttering (see step 4 for Fig. 4 and the graphical barbed Α) 0 The second transmitter 714 is configured to send the 206 message for the uplink where it has a number From the estimated uplink transmitter frequency to RAN 102 node (see step 5 for Fig. 4). The second transmission will continue to 714 using the uplink RCC value 15 for the next uplink 206 pilot until the new uplink RCC value is received from RAN 102 node (see step 6 for Fig. 4). The storage coupling 716 is configured to store the applicable RCC values ​​for the uplink and downlink together (see step 9 for Figure 4). The third transmitting post 718 is configured to transmit RCC values ​​for the uplink and downlink together to node 107 CN (see step 10 for Fig. 4). 20

The third receiving vessel 720 is configured to receive from R2 node 2 R10 callback message 208; it has a number of downlink tee and uplink value for this (see step 3 of Figure 5; call: - callback message 208 may be sent; then node CN 107 has downlink payload For wireless device 1044). The number of repetitive downlink jaunters used in calling message 208 may depend on the value of the ^ ^ downlink value

MA

39581 Bl

Preset via radio 04 or RAN node 02 to node 107 CN (see Steps 1-2 for Figure 5) or greater number of downlink frequencies (see Note 1 to Figure 5) 0 The value of ^ is for the uplink in the recall message 104 An H ^ value for the uplink transmitted is sought from the wireless device 104 or RAN node 02 to node 107 CN (see steps 1-2 for Fig. 5) or greater than the number for the uplink 5 iterations (see Note 1 to Fig. 5). The third Layout Plan 722 is configured to map the uplink ^ H value to specify a specific number of uplink iterations to use when the corresponding Summons 210 response to the RAN node is 102? (See step 4 for Fig. 5). The fourth larral leg 724 is configured to sand the summons 210 response using a specified number of ascending tee to node 102? RAN (see step 5 10

Figure 5).

Those skilled in the art will also realize that preset records can be implemented 702 70 704, 706 70 708, 710, 712 7 714 7 716 7 718 720 720 7 722 and 724 from the radio 04A separately as appropriate customized drivers. In addition, the wheels 702, 704, 706, 708, 710, 712, 714, 716, 718, 720, 722 and 724 can also be executed using 15

Any number of functions assigned during job or job separation. In some embodiments, the 702, 704, 706, 708, 710, 712, 714, 716, 718, 720, 722 and 724 wheels can also be combined into a specific Single Application Integrated House (ASIC). As a variant dependent on alternative software, the wireless device 104 may include 120 memory, 118 processors (including but not limited to a microprocessor, microcontroller or remy signal processor (DSP), etc.), Iramal 20 and receiver 110. Memory 20 stores a programmable programmable program code during processing 8 to produce the wireless device 04A to perform the 600 method steps described earlier.

With reference to Figures 8A-8B, there is an 800-line data itinerary that was implemented in node RAN 02A (for example) according to the embodiment of the present disclosure. In step 802 'treble node 25

58 39581Β1

2 RAN 0 Control forces (for example, FCCH, SCH, BCCH) to enable the wireless device 1042 (for example) to acquire a terminal with a 1022 RAN node (see step 1 for Fig. 2) In step 804, RAN 1022 resigns from the wireless device 104 messages (202) For example, the 202 channel dialing transmitter (which includes the 0 ^ value for the wireless device's downlink (see step 4 for figure 2)). In step 806, the 1022 RAN node specifies a value of 5 ^ ^ for the RCC downlink to use for the 1042 wireless device (see step 5 for Fig. 2). In step 808, Node 1022 RAN plans a specific downlink ^^ value for a number of downlink downlinks to use for downlink 205 (s) to the wireless device 1042 (see step 6 for Fig. 2 and Diagram A; Note: You also plan a Node 1022 RAN value ^^ Kept for the downlink received in 10 step 804 of FIG. 8 for a number of repeated downlink transmissions to use for the downlink message 204 that was sent to the wireless device 1042). In step 809, node 1022 RAN sends a first downlink message 204 (for example, an immediate malfunction message 204) to the wireless device 1042 (see step 7 for Fig. 2) where the number of downlink transmissions used for downlink switches 204 depends on the link's ^ h ^ value The downward wave transmitted from 15.1 through the radio 1042 in the paddock 202 (see step 4 for figure 2). If the RAN 1022 node requires that the downlink H ^ value be used that is more different than the H ^ 1 value of the downlink received from the 1042 wireless device in step 804, then this RAN 1022 node will thus denote to the 1042 wireless device by including the value of ^ 1 for the downlink specified from step 806 in the downlink jumper 20

The first 204. Subsequently, downward extension 205 messages are sent in step 810 of. Through node 1022 RAN to the wireless device 1042 based on the value of ^ 0 for the downlink specified from step 806. In step 812, node 1022 specifies RAN as, during designation. NACK / ACK or measurement record information supplied with the wireless device 1042 where a h ^ value for a new downlink for the wireless device 1042 should be used (see Step 25 of Fig. 2). In step 814, we send the node 1022 RAN for the link ^ h

MA

39581 Bl

New downlink (number of repeated transmissions) to the wireless device 104₂ (See step 9 for a figure

2). The number of recurring revenue used is determined by node 02₂ Ran the siren that contains the H value of the new downlink using the ^ value of the downlink as it is stored for the wireless device 104₂ Before it has to use the ^ value for the new downlink. 5

In step 816, we would also estimate node 102₂ Ran when receiving a locker plate 202 (for example, a channel request cable 202) in step 804 the RCC value for a wireless device uplink 104₂ Builders on the quality of the received message 202 (full, RSSI) (see step 2 for figure 4 and graph A). In step 818, add knot 02₂ ran (Enter, include) the value of ^ ^ of the estimated uplink to the paddle 204 (for example, an instant appointment message 204) 10

That was transmitted during step 810 of the wireless unit 104₂ (See step 3 for Figure 4).

In step 820, we accept node 02₂ Run a wireless device 104₂ At least one 206 uplink message that has a number of repeated uplink transmissions that match the h ^ value of the uplink transmitted in the appliance 204 (see step 5 for Fig. 4). Step 822, send knot 02₂ ran a new uplink value if we require 15 wireless device 104₂ It (see step 6 for Figure 4). In step 824, store the RAN 02 node₂Set RCC values ​​that are applicable to both uplinks and downlinks along with TLLI orLocally Relevant Whistle 04₂A (see Step 7 for Figure 4). In step 826, node 102 can₂ ran Sending RCC values ​​applicable to both uplink and downlink to node 107 CN along with TLLI or other local related relay from device 20

Wireless 104₂ When the connection between the wireless device is terminated 104₂ And knot 102₂ ran (see Step 8 for Figure 4).

In step 828, you receive node 02₂ ran from node 107 CN pager 208 with RCC values ​​for both uplink and downlink for wireless device 04₂A When downlink payload becomes available for the wireless device 04₂A (see Step 1 for Berth 5). In step 830a, 25

MA

39581 Bl

The Node 1022 RAN can use the received downlink SAR values ​​to determine the calling number for the calling message 4208 that was sent to the wireless device 104 (see step 2 for Figure 5). Step 832a, wherein RAN node H2a sends the calling callers 208 '(which include uplink ^ قيم values) using the specified calling frequency number to the wireless device 104 (see step 3 for Figure 5). In step 834a, 5 Node 102 RAN nodes from the radio device 104 receive the callback response 210 that has the number of repeated uplink transmissions based on the ^ value of the uplink in the calling pad 208 '(see step for Fig. 5). Alternatively, after step 828 the RAN 102 node specifies in step 830b that the ^ ^ values ​​for the uplink and downlink received from the CN 107 node are neglected, thus in this case the calling plume 208' which was sent 10 in step 834b to the device can Wireless 04A A greater number of oils and a ^ ^ value for the uplink connected in the calling message 0208 to the wireless device can also be set to the higher RCC value (i.e. more number of tetras) (see Note 1 to Figure 5). It should be noted that, in practice, a typical radio 04 device may be audible according to the last downlink's H ^ value and transmitted to the 100 network, so it would not be useful to select 15 auto islands of the RAN 02 node to use a greater number of tetanus. In step 834b, the RAN node 02A of the wireless device 04 receives the callback 210 that has a higher number of repeated uplink transmissions based on the ^ قيمة value for the high uplink.

With reference to Figure 9, there is an organizational chart showing a typical RAN 102 node configured for interaction with the radio 04 and node 107 CN according to the embodiment of the present disclosure. In 20 embodiments, the RAN 102 node may include a first transmitting station 902; first receiving station 904, first selector 906, layout 908, second transmitter 909 الثة third transmitter 910, second transmitting wheel 914, Estimation Spline 916, Spin Supplement 918, Receptor Spline 920; Fifth Spin Plane 922, Spoiler 924, Sixth Spin Plot 926, Third Receptor Spike 928, Usb Receptor 930A, Seventh Receptor Spline 932A, Receptacle 25

I

39581 Bl

Zabaa 934a, a third identification wheel 930a, an eighth burial cylinder 932b, and a fifth prospect of 934b.

The first transmission wheel 902 is configured to transmit control channels (e.g. FCCH, SCH, BCCH) to enable the wireless device _H04a (for example) of chronic leaching with RAN 102 node (see step 1 of Figure 2). The first reception wheel 904 is configured to receive from device 5

Wireless 104 message 202 (for example, channel 202 request message) that contains ^ قيم values ​​for the wireless device's downlink (see step 4 for figure 2). The first selector wheel 906 is configured to specify a downlink RCC value to be used for the wireless device? 104 (see step 5 for Figure 2). The planning wheel 908 is configured to map specific قيم downlink values ​​for one of the aj; Rp.n values ​​for multiple downlinks to specify the number of 10 downlink transmissions that are used for the downlink message (raill) 204 sent to the wireless device 04₂A (see step 6 for Fig. 2 and Diagram A; Note: We are planning chart 9090 also mapping the ^ value for the downlink received in step 4 of Fig. 2 for the number of downlink transmissions so that we can use for the downlink message 204 that has been dropped to the wireless device 104₂). The second aural circuit 15 909 is initialized to transmit the first downlink message 204 (for example, an immediate assignment message 204) to the radio device 04a (see step 7 of Figure 2) where the number of repeated downlink transmissions used for the downlink switcher 204 depends on the value of ^ ^ for the link The downlink transmitted through the radio 104 in Rule 202 (see step 4 of Figure 2) (see step 6a of Figure 2). In the event that the 906 first slot is required to use special RCC values ​​of 20 downlink that differ more than the RCC value of the downlink that was transmitted from through the wireless device 04A, then this second transmission wheel 909 will be indicated to the wireless device 04a by including a special value ^ ^ With the downlink specified in the first downlink pad of 204. The third transmission wheel 910 is configured to overwrite subsequent downlink linker.

205 To the wireless device Y04, it has a value of ^ ^ for the specified downlink 25

I

39581 Bl

(See step 7 for Figure 2). The second select leg 912 is configured to specify, for example, the NACK / ACK setting specification or the measurement recording sleeves supplied with the wireless device H104, for which a new downlink value of the wireless device 2104 should be used (see step 8 for Figure 2). The fourth transmission bee 914 is configured to send the new downlink value (number of repeated transmissions) to the wireless device H 104 (see step 9 5

For Figure 2 (2) the number of repeated transmissions used from the RAN node 02 is determined to send the message that has a value of ^ ^ for the new downlink using the value ^ for the downlink that is stored for the wireless device 104 before he must use the value of ^ ^ for the downlink New.

The estimate buffer 916 is initialized upon receipt of message 202 (eg channel request message 202) for estimate 10 of the RCC value for a wireless device uplink? 104 based on the quality of the received message 202 (for example RSSI) (see step 2 for Fig. 4 and graph A '). Addition 918 is configured to add (insert, include) a value of ^ ^ for the estimated uplink to message 204 (for example, an instant appointment message 204) that was sent to the wireless device 104 (see step 3 for Figure 4). The second reception wheel 920 is configured to receive from the radio device 104 messages 15

At least one uplink 206 that has a number of repeated uplink transmissions that corresponds to the ^ value for the uplink sent in message 204 (see step 5 for Fig. 4). The fifth transmitter block 922 is configured to transmit a RCC value for a new uplink if required to the wireless ready 104 (see step 6 for Figure 4). The storage buffer 924 is configured to store RCC values ​​that are applicable to both uplinks and down to 20 TLLI side or other local-related receiver from wireless device 104 (see step 7 for Figure 4). The sixth transmitter block 926 is configured to transmit RCC values ​​that are applicable to both uplinks and downlinks to node 107 CN along with TILI other local related extender from wireless device H 104 when the connection between the wireless device? 104 and the RAN node is terminated.

2 0a (see step 8 for Figure 4).

MA

39581 Bl

The third receiving receiver 928 is configured to receive from node 107 CN recall message 208 with the RCC values ​​for both uplink and downlink for the wireless device 1042, when the downlink payload becomes available for the wireless device 1042 (see step 1 for Fig. 5) 0 The use of the 930a is configured to use The ^ value for the received downlink to determine the calling number for the calling message 208''s being sent to the wireless device 1042 (see step 5 for Figure 5). The 7th transmission wheel 932a is configured to send the calling message 08 (which includes a value of ^ ^ for the uplink) using the specified calling frequency to the wireless device 1042 (see step 3 for Figure 5). The fourth reception wheel 934a is configured for reception from the wireless device 1042 Recall response 210 It has a number of frequent uplink transmissions based on the ^ ^ value of the uplink in the calling relay 10 08 (see step 5 of Fig. 5) 0 instead of the registers 930a, 932a and 934a, The node 1022 RAN of the third positioning block 930b that is configured to determine whether the ^ ^ values ​​for the uplinks and downlinks received from node 107NC are neglected, and thus the 8th widow 932b is configured to send the calling message 208 to a larger number of oils Repeated to the wireless device 1042, where it could lock the call switch 208 value 15

^ For an uplink that is set to a high RCC value (that is, a higher number of iterations) (see Note 1 to Fig. 5). The fifth receive wheel 934b is configured for reception from the wireless device 1042 Recall Response 210 Owns a number of recurring uplink transmissions based on a ^ قيمة value for the high uplink.

Those skilled in the art will realize that preset records 902, 904,20 can be saved

4906 4908 09 910 '912' 914 p 916 '918' 4920 4922 924, 926; 928;

930A, 930B, 932A, 932B, 934A, and 934B from 1022 RAN node separately as appropriate custom stacks. In addition, the 902, 904,906 track record can also be saved.

908; 909; 910; 912; 914; 916; 918; 920; 922; 924; 926; 928; 930a;

930B, 932A, 932B, 934A, and 934B using any number of allocated circuits during 25

I

39581 Bl

Functional combination or separation. In some embodiments, the wheels 902, 904 '906, 908' 909 '910' 912 '914' 916 '918' 920 '922' 924 '926' 928 '1930' 930B, 932A, 932B, 934A, and 934B in One applicable specific integrated house (ASIC). As a variant related to alternative software, the RAN 02 node may include a 1342 'process memory 32 (including but not limited to a microprocessor, microcontroller or 5-throw signal processor (DSP), etc.) and a transmitter and receiver 1222. The memory 34 code stores a programmable programmable code by a machine capable of executing through the 1322 processor to produce the 1022 RAN node to perform the previously described 800 method steps.

Referring to Figure 10, there is a process flow diagram for Method 1000 executed in node CN 107 according to the embodiment of the entropy detection. In step 1002, the CN 107 node receives the ^ 10 القيم values ​​for the uplink and downlinks either from the wireless device 1042 and the RAN 1022 node, or both after the connection between the wireless device 1042 and the node 1022 RAN has ended (see steps 8 and 10 for the 4th). In step 1004, the CN 107 node stores a downlink-specific 0 value and the ^ الص value for the uplink associated with the single wireless device.

In step 1006, we send node 107 CN to node 1022 RAN paging message 208 with 15 RCC values ​​for the uplink and downlink for the wireless device 1042 when the downlink payload becomes available for the wireless device 1042 (see step 1 for Fig. 5). RCC values ​​can be transmitted to both uplinks and downlinks together in callpad 208 with a resonant seal indicating the period in which the RCC ED values ​​are raised to the node Ι2Ο2 CN and the cell builder information around the cell where the 1042 wireless device is connected when these RCC values ​​are acquired. This can be supplied 20

Information In the event of the additional information required in the calling pad 208 to enable the RAN 02 node to access the reliability of the ^ قيم values ​​for the uplinks.

With Figure 11, there is a block diagram showing the typical minimum CN 107 node configured to interact with the wireless 1042 and 1022 RAN nodes according to the embodiment of the current disclosure. In an embodiment, the node 107 CN may include a receiving vessel 1102 'storage assembly 25

I

39581 Bl

1104, transmit wheel 1106. The reception receiver 1102 is configured to receive RCC values ​​for both uplink and downlink from either the wireless device 2a 0 and RAN node 02a or both after termination of the connection between the wireless device 1042 and node 1022 RAN (see phaeton 8 and 10 of Fig. 4). The storage hive 1104 is configured to store the downlink value ^ ^ and the uplink value ^ ^ associated with the single wireless device. The 1104 transmission 5 wheel is configured to send the calling message 208 with RCC values ​​to the 1022 RAN node for the uplink and downlink of the wireless device 1042 when the downlink payload becomes available for the wireless device 1042 (see step 1 for Fig. 5). The special values ​​for both uplink and downlinks can be sent together in Summon Message 208 with a resonant seal indicating the period in which the RCC values ​​were raised to the node 1022 CN and the cell condenser information around the cell where 10 wireless device 1042 was connected when these RCC values ​​were acquired. This information may also be provided and in the case of the additional information required in Callback Message 208 to enable Node 1022 RAN to evaluate the reliability of the values ​​^ for the uplinks.

He will also realize the skillful people in. The field is that, the prescribed records 1102, 1104, 1106 from knot 107 CN can be executed separately as a suitable customized suit. In addition, 15 records 1102, 1104 and 1106 can also be executed using any number of allocated circuits during a combination or functional separation. In some embodiments, the registers 1102, 1104, and 1106 may also be combined into one specific applicable applicable house (ASIC). And as shoulders related to alternative software, it can take up a node of 107 CN on the 148 memory, processor 146 (including but not limited to a microprocessor, microcontroller or digital signal processor (DSP), etc.) and transmitter 20 and receiver 136. where the memory stores 148 program codes Readable by the machine powered by the 146 processor to produce the 107 CN node to perform the 1000 step described previously.

Updated EC-GSM dinosaur class

MA

39581 Bl

In the 62 # 3GPP 7SG-GERAN Meeting previously mentioned, the material description of the material GP-14O42, entitled New Study Item on Cellular System Support for Ultra Low Complexity and Throughput Internet of Things, was improved. Whereas, one of the main objectives of this work material is to increase coverage at the existing GPRS services. The following description summarizes an approach that permanently covers the 107 CN node (^, 5 (SGSN 107) summon message 208 to RAN 02 node (for example, BSS 102) bastard on a sufficient downlink coverage category (dosed or greater than estimated by the device). Wireless 04a) for RAN node 02 to be able to successfully call the proprietary device 104. In particular, Figures 12-14 illustrate the steps that have been performed through the wireless device R104, node RAN 02a and node 107 CN to implement this new approach (Note: Fruits are 12, 13 and 10

And 4a are the same as 4, 6 and 0a, but they are for additional steps (see text in bold) associated with this new approach). Although the discussion below follows in the area of ​​EC - GSM (a GSM operation of the packet data channels that supports extended coverage on the gambling with a GSM network operation recommended), the solutions described here are applicable to other types of wireless communication systems, including, for example, systems 15 .WiMA ^, LTE, WCDMA

1. Select the calling group

When calling the EC-GSM 104H wireless device, to identify a specific set of PCH -EC blocks we use to transmit the calling message 208 ', the first node RAN 02 (for example, BSS 2 10) requires knowledge of the following:

0 (20 eDR)

Downlink Coverage Class (DL CC), and

0 IMSI for wireless device LLC 04a.

The downlink (downlink material value) is estimated by the radio 04 and connected to the 100 network (node ​​107 CN). Later, the RAN 102 node receives the link

MA. 39581 Bl

The CC descending (downlink value ^^) from node 107 CN is used to specify the number of calling sources (EC-PCH blocks) that are required to be in place when the calling pager is dropped 208 'to the wireless device 104 in a network regulation 100 to tear the wireless device location 1042.

Despite the expectation of the EC-GSM device _H04 Supplying node 107 CN (e.g. SGSN) with its own estimated 5 DL CC (^ value for downlink.) For example, within the context of the RAU approach, the possibility for the default DC 04 AD is still possible (the value of ^ blackness) Downlink) at any interval between two consecutive approaches (see step 11 of Fig. 12 and step 1302 of Fig. 13). DI CC in this change is discussed in more detail below. 10

2. Snappy to update the DI Coverage category

1 Update of the DL CC pre-recall set

Whenever you receive the coverage category of the wireless device 1042 so that it is not able to decode the callback 208' using the DL coverage category (downlink RCC value) supplied recently to node 107 CN (e.g., SGSN 107), it is assumed that using a cell update approach requiring transmission 15 Only single RC data block with ^^ value for the new downlink and accordingly is a power efficient way of effecting DL CC update at node 107 CN (ex. 107 SGSN) (see step 12 for Figure 12, step 1304 for Figure 13 and step 1402 Figure 14).

Furthermore, for the possibility of a major signaling potential between the wireless 1042 and the node 20 107 CN (for example, 107 SGSN), the wireless 1042 can wait for a short period (for example, 5 seconds) before T occurs for its nominal call group (i.e., based on DL Its own common CC) and before performing its cell update to transfer its new DI CC (^^ value for a downlink)

I

39581 Bl

To -107 CN node (for example, 107 SGSN) (see step 12 for Figure 12, step 1304 for Figure 13 and step 1402 for Figure 14).

In addition, the radio 04 must wait until before the next nominal recall group has just occurred to resolve whether the DI CC needs to be permanently changed and this ensures that cell updating will be used as moderate as possible. 5 This solution is used whenever the wireless device 04a is changed to a higher coverage category (more blinding is required) in order for the wireless device 104 to be capable of a callback block of 208 '(to a high degree of probability) that can be transmitted using its own nominal call packet . This does not guarantee that the radio 04 will always be able to read the 208 calling transmitter transmitted using the nominal recall group indicated by. By updating the cell of its transmitter delayed 10, it will reduce the possibility of losing the calling transmitter 208 to the point where the calling mechanisms will not be The secondary school is available in case we require it.

2.2 Updating the DL CC client segment

The better the DL coverage category (value of H9 | downlink with downlink), the better the device will be able to decode the calling message T04A; using a smaller number of 15 prizes available, there will be no basic need to update the AD DI coverage category with a node of 107 CN (For example, SGSN 107) only prior to the call unless the recall bandwidth is needed. In this case, the wireless device can 04₂Wait until the next uplink part to unify node 107 CN (for example, 107 SGSN) from the new DL CC instead of performing a cell refresh for a short period before its next nominal call set as described earlier. 20 This could be caused by the fact that the radio 04 cannot continue to use the DL CC for its own current safely (downlink ^ value) for the callback segment 208 since the radio 04 is currently not in a better coverage category than the 107 CN node currently assumes ( For example, 107 SGSN).

MA

39581 Bl

The most straight forward method for a wireless device is the provision H04 node 107 CN (for example, 107 SGSN) with the new DL coverage category (RCC value ^ downlink) to modify the UNITDAIA -ul transports LLC-PDU for a wireless device and its associated video interface interconnect information via link Interfaces Gb. This can be verified while the GSM -EC 104 has access to the 100 network that sends a 202 RACH request (for example, 202 channel request message) 5

To node RAN 02A (ex. BSS 02a) and include its own estimated DI CC signal (downlink RCC value) in the organization of node RAN 02a (ex., BSS 029a) to be able to assign the sources correctly along with the transmitter placement of the CVS 204 with a number Suitable for duplicates (see steps 4 and 7 for Figure 2). This means that whenever an EC-GSM wireless device transmits 104 uplink data to RAN 02 node (for example, 10 BSS 102: 2), the last coverage category information can be added to A PDU U L- UN 11 DA2 and sent to node 107 CN (fill , SGSN 107) (see Step 12 for Figure 12, Step 1304 for Figure 13 and Step 1402 for Figure 14).

3. Conclusion

To ensure that node 107 CN (for example, 107 SGSN) always sends a calling message 208 to node 15 RAN 02 02 (full, BSS 02 A) denotes downlink coverage category (downlink CC value) sufficient (equal or higher) for node 02 RAN (example, 02: 2 BSS) to be able

Successfully calling the 04 wireless device in a compatible coverage coverage that can be made as described above for both the downlink upgrade category of downlink coverage category and solutions

Downlink to update part time.

In the previous scene, this disclosure introduces a new mechanism to enhance ZOD coverage based on the exchange of uplink and downlink radio status information, as indicated as a radio coverage category (RCC), between the radio 04a (for example) and the 100 network for use in data transmission ( For example, speak a control level or send a user’s payload). The technologies disclosed are based on an estimated exchange of RCC values ​​between Network 100 and Wireless 104₂ Where 25

41

I

39581 Bl

They are used to apply a number of repeating emissions (for example, a predefined number) to the ZIP interface. The RCC value can be estimated for downlink (for example, perspective 1042 wireless device) and for uplink (for example, 100 downlink network). The RCC value can also be stored in the related network count 1022 and 107 (for example) and the wireless device 104 to be used to determine the appropriate number of repeated transmissions for subsequent data transmissions, for example, when the call occurs. Some of the aspects of this disclosure that are described herein include:

0 Initial propagation and power at the assumption where a 1042 wireless device (for example) uses special estimation of downlink radio cases or pre-configured information to determine the number of repeated transmissions. The Royal device 1042 should use when sending a first channel request message 202 on Ed RACH.

0 The use of 202 channel request message (RRC communication request or any control level or send a MTU message used on the uplink) to indicate the RCC value where the royal device 1042 is determined to be applicable for subsequent message transmissions on this wireless device 1042 (for example, AGCH or PDTCH). The RCC value used by the 1022 RAN node (for example) for downlink transmissions can be the last RCC value received from the Royal device 1042, the estimated RCC value (for example, based on uplink radio conditions), or average operation of received RCC values And / or estimated. The downlink dialog that is used to specify this downlink value can be an approved implementation statement. ^ S downlink value also represents different numbers of tetanus depending on the logical channel or radio carrier used.

0 The use of the designation rails 204 or any level controller or send a flat message used on the downlink is sent to a given wireless device 1042 (for example) to indicate the RCC value where node 1022 RAN is specified (for example) to be applicable for uplink message transmissions Suffix (for example, RACH or PDTCH) is made by royal machine 1042. This RCC value has different numbers of iterations depending on the channel

42

Mk

39581Β1

Boolean used. The RCC value used to determine the number of repeated overheads on the uplink can depend on the value of ^ ^ for the last estimated uplink received from network 100, estimates of the wireless device from the uplink value ((for example, downlink radio quality builders), or on Average RCC values ​​for the uplink for the wireless and / or receiving device.

The technologies advertised here have many benefits, some of which are:

0 Allows to reduce the amount of data transmission between the RAN node and the wireless device

0 Reducing the power consumption of the wireless device and because of this, improving battery life.

0 Improve the reliability of ScaleMe data.

0 Reducing the level of interference to the network.

0 system estimator increase.

Since many wireless wires used for MTC are expected to be stable, the disclosed technologies for estimating and communicating the RCC value between wireless wires and a network can be effective in promoting effective use of radio sources while still allowing the possibility to adjust applicable RCC values, In the event that the need arises.

It will be recognized by those skilled in the art that the use of the term typical is used here to excuse an explanatory, or act as an example, and is not intended to be the embodiment of a specific preferred over the other or to be a specific Mir is essential. Otherwise, the first and second terms, and similar terms, are used simply to distinguish one specific example of a substance or a Mir from the other, and not to indicate a specific organization or arrangement, unless the context clearly indicates otherwise. In addition, the term means step, as used here, to be associated with the term process or action. Also, any description here from the chain of steps does not imply that these operations must be carried out in a specific organization, or even that these operations are stiffened in any organization at all, unless the context or details of the process described clearly indicate otherwise.

43

I

39581 Bl

Of course, it is possible to pluck the present disclosure in more certain other ways than this presented here without departing from the objective of the essential characteristics of the invention. One or more of the specific operations disclosed herein may be preceded in a mobile handheld or an Aral device and a receiver for other communications that includes one or more appropriately configured processing functions, which may be embodied in some embodiments in a specific integrated house for one or more applications (ASICs). . In some embodiments, this treatment datas 5 may include a microprocessor, microcontroller, and / or one or more RNAi signal processor programmed with appropriate software and / or by fixed mixing of the process described above one or more, or various forms thereof. In some embodiments, this dataset may include a hardware designed to fulfill the function described previously by one or more units. The existing embodiments are, therefore, taken into account in all matters relating to what is indicated or unrestricted. 10

Although clarifying multiple embodiments from the current disclosure in the attached ROM and describing them in the previous detailed description, you must note that the implant is not confined to the declared embodiments, but instead it is also able to restore the arrangements, amendments and multiple replacements without moving away from the current disclosure that was made Serve it and define it as the following protection elements.

15

MA

39581 Bl

Adity account

1. A wireless device (04A) is equipped for communication with the ZID ZO network node, RAN (02h) and wearing node, 107), CN), where the wireless device includes the following:

Processor (h 118); f

Memory (120) We store instructions that can be executed in the processor medium, where the processor connects with the memory to execute instructions that can be executed by the processor, thus the wireless device can be operated to receive (602), from the RAN node, control channels before reaching the RAN node; for an estimate (604) (Downlink radio case in which the wireless device passes through the received signal quality of the received control channels) to map (606) the downlink radio condition estimated for one of the downlink radio coverage category values, RCC, for the downlink; to plan one downlink RCC value To a number of repeated downlink transmissions; to send (608), to the RAN node, a first message (202) includes one RCC value for the downlink; and to receive (610), from the RAN node, a second message (204) has the number of repeated downlink transmissions And based on one downlink RCC value,

Where the radio device is characterized by sending (1304), towards the CN node, an updated downlink RCC value in a cell update, where the updated downlink RCC value is estimated at a predetermined time before the second call group occurs again.

2. The wireless device according to claim 1, where the wireless device can also be operated to do the following

Determine (608 ') the estimated number of repeated uplink transmissions to use when sending the first message to the RAN node, as the first message is a first connection with the RAN node, and where the estimated number of uplink links repeated in the first message is based on the condition of the downlink zip up Predetermined estimator or stamps.

45

I

39581 Bl.

3. The wireless device according to protection element 1, where:

The second patron includes an RCC uplink value, and

The cordless device can also be operated to plan (612) the RCC value of the uplink to a number of repeated uplink transmissions; and to send (614), to the RAN node, a third transmitter (206) is sorted according to the number of frequent uplink transmissions. 5

4. The wireless device according to protection 3; where the second message also includes a new downlink RCC value when the RAN node specifies the use of the new downlink RCC value instead of the downlink RCC value included in the first transmitter.

To node 10 .RAN

5. Method (600) of a wireless device (104) is configured to communicate with the ZIDO access network node, RAN, (? 02) and a central network node. 107), CN), the method includes the following:

Receive (602) of the RAN node, control channels before reaching the RAN node; estimate (604) of the downlink Zode characteristic of the wireless device based on the quality of the received 15 control signal;

(606) downlink radio condition estimation over a unit of the downlink radio coverage category, RCC, values;

Single downlink RCC value mapping to multiple downlink downlink transmissions; 20

Send (608), to the RAN node, a first message (202) that includes a single downlink RCC value; and

Reception (610); from the RAN node, a second transmitter (204) has the number of repeated downlink transmissions based on the RCC value of the downlink;

MA

39581 Bl

Where we distinguish the method by sending (1304), toward the CN node, an updated downlink RCC value in a cell update, where the updated downlink RCC value is estimated at a predetermined time before the second call group occurs.

6. The method according to protection element 5, also includes the following:

Determine (608) an estimated number of repeated uplink transmissions to use when sending the first message to the RAN node, where the first message is a first contact with the RAN node, and where the estimated number of repeated uplink transmissions in the first message depends on the condition of the estimated downlink zip up Or pre-configured information.

7. The method according to claim 5, where:

The second message includes the value of RCC and ascending bar, and

The method also includes:

Layout (612) of the uplink RCC on a number of repeated uplink transmissions; and,

Send (614), to the RAN node, a third message that is repeated according to the number of repeated uplink transmissions.

8. Method according to protection element 7, where the second message also includes a new downlink RCC value when the RAN node specifies the use of the new downlink RCC value instead of the single downlink RCC value included in the first message sent to the RAN node.

MA 39581 Bl

09 central network nodes, 107), CN) configured to communicate with a group of wireless adherents (H 104, 104.04.10) and ADEO access node, 1022), RAN), the CN node includes the following: processor (146); and,

Zakir (148) stores instructions that can be fed by a processor, where the processor connects with memory 5 to execute instructions that can be desired by the processor, thus the CN node can be run to receive (1002), from the RAN node or one of the wireless devices (1042), a message that includes a value For ZDW coverage class, RCC, for downlink and RCC value, uplink linked to one wireless device; to store (1004) the downlink RCC value and value. RCC for uplink associated with one wireless device; and to indent (1006), to RAN node, call message (208) 10

For a single wireless device when a downlink payload becomes available for a single wireless device, the calling message includes the downlink RCC value and the uplink RCC value associated with the single wireless device,

Where the CN node is characterized by receiving (1402), from a single wireless device, an updated downlink RCC value in a cell update, where the updated downlink RCC value is sent instead of 15 from the downlink RCC value of the downlink to the RAN node when a recall message is sent (208 ) For a single wireless device.

10. CN node according to protection element 9, where the calling message also includes a time stamp indicating time, message reception that includes the downlink RCC value and the uplink 20 RCC value by the CN node and a cell identifier indicating the location of the single wireless device when receiving the included message For RCC downlink value and RCC uplink value by CN node.

MA

39581 Bl

11. Method (1000) in a central network node, 107), CN) configured to communicate with a group of wireless devices (104, 1043 ... ni04) and an ADE access node, 1022), RAN). The method ignites as follows:

Receive (1002), from the RAN node or one of the wireless devices (E 04a), a transmitter that includes the value of the Zedo coverage category (RCC) for the downlink and the RCC value for the uplink expected with a single wireless 5;

Storing (1004) the downlink RCC value and the uplink expected RCC value with a single wireless device; and

Send (1006), to the RAN node, a calling message (208) for one wireless device when a downlink payload becomes available for the single wireless device, where the calling message includes a 10 RCC downlink value and an uplink RCC value that is compatible with the single wireless device;

The method is characterized by receiving (1402), from the single wireless device, an updated downlink RCC value in a cell update, where the updated downlink RCC value is sent instead of the stored downlink RCC value to the RAN node when 15 call messages are sent (208 ) For a single astronomical device.

12. The method according to protection element 11, where the calling message also includes a time stamp indicating the message reception ranges that include the downlink RCC value and the uplink RCC value by the CN node and the cell translator indicating the location of the connection of the 20 wireless devices when receiving the message that We include the downlink RCC value and the uplink RCC value by the CN node.

Mk

39581 Bl

<img file="MA39581B1_D0001.tif" />

<img file="MA39581B1_D0002.tif" />

I

39581 Bl