Normal;heading 1;SECTOR INTERFERENCE MANAGEMENT BASED ON INTER-SECTOR PERFORMANCE

Ukraine

(19)

id (it) 99178 (s) C2

(51) IPC

H04M16 / 10 (2009.01)

STATE SERVICE INTELLECTUAL OPPORTUNITY OF UKRAINE

(12) DESCRIPTION TO A patent for an invention

(21) Application number:

(22) Date of application:

(24) Date from which the valid law for the invention:

(31) Number of the previous application in accordance with the Paris Convention:

(32) Date of submission of a preliminary application in accordance with the Paris Convention:

(33) Code of the State party to the Paris Convention, to which a previous application has been filed:

(41) Publication of information about the application:

(46) Publication of information on the issuance of a patent:

(86) Number and date

submission of an international application filed in accordance with the PCT Agreement

and 2010 10931

10.11.2008

25.07.2012

61 / 028,497,

12 / 260,834

Feb 13, 2008

October 29, 2008

from

from

Dec 10, 2010, No.23

July 25, BUL # 14

PCT / C32008 / 083045,

10.11.2008

(72)

(74)

(56)

Inventor (s):

Kandecar Aamod (υδ),

Abraham Santos (υδ),

Gorokhov Alexey (υδ),

Bhusan Naga (υδ)

Owner (s):

QUALCOM INCORPORATEID,

5775 ΜθγθΙιθιιβθ Υπνθ, IZIEDO Hall, Saiiyogpia92121, Ipiyeb Ziyaeye oi Ategis (iZ) Representative:

Moshynska Nina Nikolaevna, registry number 115

List of documents taken into accountexpertise:

iSC 2007/105576 A1; May 10, 2007, and 2007/115817 A1; May 24, 2007, No. 6522628 B1; February 18, 2003

(54) CONTROLLING THE BURDEN IN THE SECTOR ON THE BASIS OF INTERCONNECTIVE OPERATING CHARACTERISTICS

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(57) Summary:

This document describes the provision of metrics based on equivalence to control the cross-sectoral obstacle in the mobile AAN (access network). As an example, the accumulation of resource usage messages (Rome) in the mobile AAN sector can be based, at least partially, on the metric of the performance of this sector compared to one or more neighboring sectors. In at least one aspect, the metrics of the working characteristics for a plurality of sectors of the mobile AAN can be aggregated, and the intensity of accumulation Rome for each sector is determined on the basis of the aggregated metric. The intensity of accumulation can be additionally periodically updated if the sector and / or aggregated metrics of the mobile AΝ are changed. Accordingly, the accumulation and use of communications Rome is based on cross-sectoral equivalence,

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In this patent application requires the prior priority patent application SSHA№61 / 028,497, entitled "ΑϋΑΡΤίνΕ AI.SOPITNM5 POP 1ЫTEREEREЫSE ΜΑΝΑΟΕΜΕΝΤME55AS1ЫS OTITN ΙΝΤΕΡ-ZESTOR ΕΑΙΡΝΕδδ ΙΝ A OTIREI_E55 ΝΕΤΜΟΡΚ" (Adaptyvnialhorytmy messaging with mizhsektornoyurivnodostupnistyu interference management in a wireless conn filed February 13, 2008 and assigned to the legal successor of the present invention, and this time is explicitly included in this document with the help of reference.

References to patent applications that are being considered at the same time

This patent application is related to the following US patent applications, which are simultaneously considered:

"REAEMBE ΟΕ5ΙΟΝ ROP A OTIREI.E55 5ΙΟΝΑΙ." on behalf of Aatos KIapspiqag and others, the number of the case verifier number 080269, filed at the same time, assigned to the successor of the givenproperty and this time is explicitly included in this document using the link;

"REAEMBE AREA OF PORA AND OTIFA Ε55 5ΙΟΝΑΙ." on behalf of Aato KIapSecag and others, the number of the case number 080278Sh, filed at the same time, assigned to the successor of the givenproperty and this time is explicitly included in this document using the link;

"REAEMBE AREA OF PORA AND OTIFA Ε55 5ΙΟΝΑΙ." on behalf of Aato KIapSecag and others, the number of the case verifier number 080278 and 2, filed at the same time, assigned to the successor of the givenproperty and this time is explicitly included in this document using the link;

"REAEMBE AREA OF PORA AND OTIFA Ε55 5ΙΟΝΑΙ." named AatoS KYapSekah et al. nomerspravy number 080278y3 attorney filed simultaneously pereustuplena assignee danohovynahodu and this time explicitly incorporated into this document by reference;

"BASKNAІІI. 5ΙΟΝΑΙ_ΙΝΟ РОР INΤΕΡРΕΡΕΝСΕ ΑVΟI ^ ΑΝΕΕ" to the name of Aato KIapSecag and others, the case number of the verdict number 080694, filed at the same time, assigned to the successor of the givenproperty and this time is explicitly included in this document with the help of the link.

The foregoing generally relates to wireless communication and, more specifically, to providing in-mode mobility management for multi-cellular environments.

Wireless communication systems are widely used to provide various types ofcommunicative content, such as language content and data content, etc. Typical wireless systems can be multiple access systems that can maintain communication among abundant users by sharing existing system resources ( such as bandwidth, transmission power). Examples of such systems may include a code division multiple access system (COMA), time-division multiple access systems (OMA), frequency domain multiple access systems (ROMAs), orthogonal frequency division multiplexing systems (OROMA), and so on.

In general, multiple-access wireless systems can simultaneously maintain communication for many mobile devices. Each mobile device can communicate with one or more base stations by means of direct and reverse link communication. The direct link (or downlink) refers to the communication channel from the base station to the mobile device, and the backlink (or uplink) refers to the communication channel from mobile devices to the base stations. In addition, the connection between mobile devices and base stations can be established using systems with one input and one output (5UO), systems with a plurality of inputs and one output (MSO), multiple input systems and multiple output systems (MIMO), etc. .

One important aspect of mobile communication technology is the management of interference between transmitters. A typical cellular network of a cellular network cellphone, for example, uses a plurality of base stations with transmitter transceivers to communicate with user terminals within the cell size. The transmission area of ​​the base stations is usually (partially) overlapped so that a separate receiver often receives several overlapping signals at a given time. Accordingly, in such receivers, as a result, there is an interference from the signal, which potentially reduces the purity of the signal and the quality of the cellular communication, if left uncorrected.

There are many mechanisms for reducing intracranial inhibition. Someprovide the use of M ^ O and MIMO receivers-transmitters, which can allow morehigher levels of interference due to improved analysis of signals in the receiver. Latest sposobymodulyatsiyi such as orthogonal modulation on multiple carriers (eg yakvykorystovuyetsya when multiplexing with orthogonal frequency division [Oromo]), can effectively reduce interference signals. The OROM uses orthogonal subcarrier frequencies to significantly reduce the cross-barrier between carrier signals. Another method involves performing a request to reduce the transmission power of the dominant

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sources of interference on one or more channel resources. If the transmission power in the source of interference is maintained in an acceptable range, overlapping signals on the resource of the channel can often be allowed in the receiver.

However, mobile communication systems are in a state of constant change, as open new research and technology. Architectural changes in mobile communication technology are carried out to increase data rates, bandwidths, or to improve data transfers. The problem of interference is usually to be reviewed for each new technology to determine whether the balance will be disturbed, provided by the previous mechanisms for controlling the obstacles. Thus, the control of the signal-obstacle is a constant problem, which requires new solutions, since the implementation of new technologiesmobile communications.

The following is a simplified brief description of one or more aspects to provide a basic understanding of such aspects. This brief description is not an exhaustive overview of all aspects considered and is not intended to identify key or critical elements of all aspects, nor to outline the scope of any one or all aspects. Its only purpose lies in the presentation in simplified form of some of the principles of one or more aspects of the inventive part to a more detailed description, which is presented below.

Disclosure of the object of the invention is an obstacle control for the mobile network of non-traffic access (AA) on the basis of performance metrics relative to the AEC sectors. The performance metrics may include different service quality parameters (Οοδ) such as average data rate, median value of data transmission speed, meeting the requirements for a guaranteed bit rate and / or the like. Accumulation of the use of the resource (Rome) in the sector can be based, at least partially, on the metric of the performance for this sector compared with one or several neighboring sectors. In at least one aspect, the metrics of the working characteristics of a plurality of sectors can be aggregated, and the accumulation intensity of Rome for each sector is determined on the basis of an aggregate metric.

In one or more aspects, a method for organizing mobile communication is disclosed. The method may include the acquisition step, in the mobile sector αΝ, the metrics of the working characteristics for at least one neighboring sector. In addition, the method may include a step of implementing the cross-sectoral equivalence of use of the resource, based on, at least partly, the metric of the performance of the neighboring sector (s).

According to other aspects, a device that controls the wireless communication is provided. The device may include a data acquisition unit receiving in the mobile AAN sector, a metric working characteristic of at least one neighboring sector. In addition, the device can provide a control module that implements the cross-sectoral equivalence of resource utilization, based on at least partly the performance metric of the neighboring sector (s). Additionally, the device may comprise a storage device that stores data of one or several received metrics of the performance, commands for device processing modules, or the results of processing operations, and a processor that executes stored in the memory device commands processing modules to perform the functions of the device.

In one or more aspects, the device is disclosed in the configuration with the possibility of mobile communication. The device may comprise a means for obtaining, in the mobile sector, an operating characteristic metric for at least one neighboring sector. In addition, the device may comprise means for implementing a cross-sectoral equivalence of use of the resource, based at least partially on the second metric of the performance of the neighboring sector (s).

In accordance with other aspects, the processor is disclosed in a configuration with the ability to controlmobile communications. The processor may comprise a first module received in the mobile AAN sector, a performance metric of at least one neighboring sector. In addition, the processor can contain a second module, which implements the cross-sectoral equivalence of use of the resource, based on, at least partially, the metric of the operational characteristics of the neighboring sector (s).

In addition to the above, provided with a computer-readable media that contains computer-read commands in the configuration with the ability to control mobile communications. The commands may be executed by at least one computer to hold, in the mobile AAN sector, a performance metric for at least one neighboring sector. Additionally, commands can be accomplished by at least one

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a computer for the implementation of a cross-sectoral equivalence of use of the resource, based on, at least partially, the metric of the performance of the neighboring sector (s).

In accordance with one or more additional aspects, a method for promoting non-wire communication is disclosed. The method may include a step of obtaining a wireless (OTA) transmission, which contains a metric of the signal characteristic of the mobile base station. The method may additionally include the stage of promoting the cross-sectoral equivalence of use of the resource, at leastpartially, by sending the metric of the characteristic of the signal to the serving mobilebase station.

In accordance with other aspects, an access terminal (AT) is provided. AT can contain receiver receiving the first OTA transmission, containing the metric of the signal characteristics of the mobile base station. The AT may further comprise a routing module that facilitates inter-sectoral equivalence of use of the resource at least partially by wirelessly transmitting the metric of the characteristic of the signal to the serving mobile base station. In addition, the AT may contain a storage device that stores data and processing modules for the AT, and the processor that executes. Module command commands to carry out the functions of the AT.

In the other aspects, a device that promotes wireless communication is revealed. The device may contain a means for obtaining a first OTA transmission, which contains a metric characteristic signal of the mobile base station. The device may additionally contain a means to promote the intersection of equally accessible resource use, at least in part, by means of wireless transmission of the signal characteristic metric to the serving mobile base station. Additionally, the device may include a means for storing data and processing modules for the device, and a processing device that executes the instructions of the processing unit to perform the function of the device.

In the least in one aspect, the processor is provided in the configuration with the ability to facilitate wireless communication. The processor may include a first module receiving an OTA transmission comprising a metric of the signal characteristic of the mobile base station. Additionally, the processor may contain a second module that implements the cross-sectoral equivalence of the use of the resource, at least partially, by forwarding the characteristic metric signal to the serving mobile base station.

In accordance with one or several other aspects, a computer readable component that contains computer-readable commands in a configuration with the ability to facilitate wireless communication is revealed. The commands are feasible by at least one computer to receive an OTA transmission that contains the metric of the signal characteristic of the mobile base station. Additionally, commands are feasible by at least one computer, to implement between the sectorsrequireability of the use of the resource, at least partially, by sending metriccharacteristics of the signal to the serving mobile base station.

To achieve the foregoing and related purposes, one or more aspects include signs which are fully described below in the document and are specifically specified in the claims. The description below and the attached figures in the drawings are detailed in some of the illustrative aspects of one or more aspects. However, these aspects indicate, however, only a few distinct ways in which the principles of various aspects may be used, and it is understood that the aspects described comprise all such aspects and their equivalents.

FIG. 1 is an illustration of a block diagram of an exemplary system that provides wireless communication in accordance with the aspects outlined in the document.

FIG. 2 is a block diagram illustration of an exemplary communication device for use with the wireless environment.

FIG. 3 - illustration of a block diagram of an exemplary system that determines the intensity of accumulation of the message of use of the resource (Rome) of the mobile AI sector.

FIG. 4 illustrates a block diagram of an exemplary control device in accordance with aspects of disclosing an object of the invention.

FIG. 5 is an illustration of the Rome Flowchart for mobile AKI in accordance with the aspects disclosed in the document.

FIG. 6 is an illustration of a block diagram of an exemplary base station that manages the accumulation of Rome based on the sector's performance.

FIG. 7 is a block diagram illustration of an exemplary access terminal, which facilitates the aggregation of the metric of the sector's operational characteristics for controlling the Rome sector.

FIG. 8 is an illustration of a sequence of operations of an exemplary method that provides an accumulation of the Riem based on the metrics of the mobile performance AI.

FIG. 9 is an image of a sequence of operation of a model methodology to provide control of the Rim based on the aggregated metrics of the sector's performance.

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FIG. 10 is an image of a sequence of operations of an exemplary technique to facilitate the management of the Rim based on one or more aspects.

FIG. 11 is an illustration of a block diagram of an exemplary system that provides wireless communication between devices in accordance with aspects of disclosure of an object of the invention.

FIG. 12 and 13 - picture block diagrams of model systems that provide accumulation of Rome on the basis of the metrics of the performance characteristics of the mobile sector A.

Below, various aspects are described with reference to the drawings in which similar reference links are used to refer to similar elements throughout the description. In the description below, in order to explain, there are many specific details to provide a complete understanding of one or several aspects. However, it may be evident that such aspects can be accomplished without these specific details. In other cases, knownstructures and devices are shown in the form of flowcharts to facilitate the description of one or severalpecifications.

In addition, various aspects of disclosure are described below. It should be apparent that the ideas outlined herein can be implemented in a wide variety of forms and that any particular structure and / or function disclosed in the document is merely exemplary. On the basis of the set forth in the package of ideas, a person skilled in the art will appreciate that the aspect disclosed in the document may be implemented independently of any other aspect and that two or more such aspects may be combined in various ways. For example, a device may be implemented and / or implemented in practice using any of the aspects set forth in the document. In addition, the device may be implemented and / or the method is carried out in practice using a different currentquality and / or functionality in addition to one or several aspects of the document, or different from such. As an example, many of the features, mechanisms, systems and devices presented in the document are described in the context of determining the intensity of the accumulation of Rome for one or more sectors of the mobile network based on the metric of the performance for a plurality of sectors. One skilled in the art will appreciate that similar methods can be applied to other communication environments.

Disclosure of the object of the invention involves the implementation of equally accessible resource use among the sectors of the mobile network (ΑΝ) access. Equity access can be based, at least partially, on the metric of the performance of one of the sectors of mobile AAN incompared with the metric of the performance of another sector. In at least one aspect of the disclosure of the object of the invention, the equivalence of use of the resource can be realized by installing and / or adjusting the accumulation of intermediate-avoidance loans (for example, containing messages on the use of the resource [Rome]) for the sectors of mobile AΝ.Credit interference can be used to modify the obstacle interconnected sectors of the wireless ΑΝ. In one example, a barrier avoidance loan can be disclosed to the neighboring sector, asking this sector to modify the transmission power to a subset of wireless resources. Intervention avoidance credit may indicate specificresources for reduced interference, the level of modified transmission power or both and so on. In another example, a loan to avoid interference may result from a sector modification of its own transmission power on a subset of wireless resources. Since the interference is usually due to the relative levels of the signal received in the receiver, the modification of its own transmission power of the sector can also affect the obstacle in the terminals that are served by the sector. In addition to the previous, obtaining a loan avoiding obstacles can lead to the fact that the sector is not doing any action (for example, no modification or request to modify the transmission power). Decision-making regarding the type of action

One example of a loan avoidance obstacle is Rome. Rome is a message that appears on / through a wireless device to give directions to neighboring transmitters to reduce their transmission power. Usually making a decision for issuing is based on the noise of the signal in the communication device, which occurs through one or more transmitters that interfere. The host receiving Rome may reduce its power transmission at a given ratio, which should reduce the obstacle in the device that is issued by Rome. For equivalence, the metrics of the working characteristics of the sectors of the work can be compared to determine whether there are one or more sectors in disadvantageous conditions relative to other sectors or aggregate sectors. Accumulation, issue and / or weighing of communications Rome,

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sector transmission capacity) can be adjusted to prevent Rome from issuing from neighboring sectors, excessively affect sectors that are in disadvantaged conditions (for example, sectors that have relatively low performance metrics), or prevent sectors with favorable conditions to accumulate / issue excessive Number of messages Rome.

It is clear that the wireless AAN can use both Rome's backlink (Pb), such as Rome direct link (Pb) / downlink (UB). The message Rome Pb / Ob is Rome, which is transmitted by the base station of the wireless AN on the interrupting AT. AT take Rome Pb anddetermine whether to adhere to Rome, as described in more detail below. With respect to Rome, AT can reduce the power on Pb channels, reducing the barrier to the output base station (and, for example, other base stations near the AT). In contrast, the message Rome Pb is issued by AT (for example, using Rome accumulated by the service sector associated with AT) to one or more neighboring base stations of the wireless A ^ Base stations determine whether to adhere to Rome Pb, and may reduce the transmission power Pb , with the observance of Rome Pb.

In a mobile environment, access terminals (ATs) and base stations increase the power transmissions at different times of time based on various factors. For example, the base station may accept an AT signal indicating that the signals transmitted by the base station are received in the AT with very low power. Thus, the base station can increase the transmission power to improve the communication with the blood pressure. In addition, in cases where the transmission of the device has in the receiver low signal / noise ratio (δNP), the transmission power signal can be increased. However, the increased transmission power may result in an obstruction in neighboring devices. Thus, Rome provides a feedback device that indicates that the transmission power of the device is very high for other neighboring devices.

However, Rome may have flaws. For example, a separate device can monopolize the connection of the sector, giving out on the adjacent devices too much Rome. If other devices override their transmit power on the basis of a plurality of accepted Rome, the quality of communication between such devices may decrease. Thus, the accumulation and / or delivery of messages Rome for the device should be managed so that some devices do not reduce the quality of transmission of neighboring devices. In essence, the principles of equivalence can be introduced in order to provide a satisfactory overall connection for devices in the wireless A ^

In one aspect of the disclosure, a certain number of Rome which the sector of the wireless ΑN can produce at a given time point depends on the number of such Rome that has been accumulated for the sector (for example, in the sector related to 'access rights' Rome). The frequency with which the sector accumulates Rome is called the accumulation intensity of Rome. The accumulated Rome related to the sector, decreases (per unit) when the sector issues Rome (for example, on behalf of the base station or mobile device in the sector). Thus, the rate of accumulation Rome can, at least partially, control the frequency with which the sector can send messages to Rome.

At least in one aspect disclosure of the object of the invention, the accumulation of messages Rome is determined on a sector-by-sector basis. The intensity with which the sector accumulates the message Rome, can be based on the metric of the performance profile for the sector compared with a similarmetric of the performance of one or more neighboring sectors. Accumulation of communications Rome can be established, increased and / or reduced on the basis of comparisonmetric of the sector's performance. It is clear that the installation and / or adjustment of the accumulation intensities Rome, as described in the document, can be applied to messages Rome Pb or Pb, or both. Additionally, metric crop characteristics can be monitored in time to adjust / maintain the accumulation of Rome on the basis of simultaneous changes in controlled metrics. So,

In at least one aspect, the accumulation of metrics of the performance of the sector can be carried out on the transport network between the base stations. In another aspect, the metrics can be accumulated on the specified base station shared by different base stations or organized in a centralized location (for example, a centralized radio access network component [RA ^, a component of the mobile source network part associated with each of the different base stations, or the like) . In accordance withadditional aspects, one or more ATs can accumulate metrics of workingcharacteristics from the base stations to the wireless AAN and send accumulated metrics to a service-providing base station associated with the AT terminals. For example, an AT can decode

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Message OuEg-Iii-AIG (OTA) is a performance metric for broadcasts of neighboring base stations of the wireless LAN (for example, where such broadcast broadcasts have adequate characteristics of 5NP in AT). AT can then forward the information of the metrics of the workingcharacteristics to the serving base station associated with the AT. Alternatively, in some aspects, the AT may re-transmit and / or transmit broadcast broadcasts to a service base station that can decode the metrics of the retransmission / forwarded performance.

In one or several other aspects, the intensity of the accumulation of Rome sector is determined on the basis of the aggregate performance characteristics of the sector. For example, the base station of the non-wireless AAN may receive metric information about the performance of the neighboring base stations from such base stations (eg, the transport network) and / or ATs served by the base station of the wireless A ^ The collected information can be aggregated (merged) at the base station (or , for example, in the central controller of the non-wire ΑN in some cases) to provide an aggregated metric of the working characteristics for the set of base stations of the wireless A ^ Metric of the operating characteristic separately sector (or, for example, each sector of the wireless A ^ can then be compared with aggregate data, to determine the degree of unfavorable conditions of a separate sector in comparison with the aggregated data. The degree of adverse conditions, if any, can be used to establish and / or update the rate of accumulation of Rome for the sector. For example, the intensity of accumulation of Rome can be increased, lowered or maintained on the basis of the metrics of the performance of the sector compared with the aggregate data. By aggregating data of neighboring sectors in a separate sector, changes in the relative obstacle observed in a separate sector can be established. reduce or maintain the basicmetrics of the performance of the sector compared with the aggregate data. By aggregating data of neighboring sectors in a separate sector, changes in the relative obstacle observed in a separate sector can be established. reduce or maintain the basicmetrics of the performance of the sector compared with the aggregate data. By aggregating data of neighboring sectors in a separate sector, changes in the relative obstacle observed in a separate sector can be established.

According to other aspects, the intensity with which the sector issues a message Rome or connects the message Rome with the available AT in the sector, can also be based on aggregatedometric performance. Thus, in the case where the sector has a low media value of the data rate compared to a set of sectors, the intensity of the accumulation of Rome and / or the issuance rate for this sector can be increased. If the next median value of the data transmission speed of the sector is improved relative to the aggregate data sectors, the rate of accumulation / issuance can be maintained or reduced as it is. So,

As used in the disclosure of the object of the invention, the terms "component", "system", "module," and the like are intended for reference to a computer-related object, any hardware, software, software executable, firmware , binding KO, microcode / or combination of such. For example, the module may include, but is not limited to, the process performed by the processor, the processor, the object, executable module, execution stream, program, device and / or computer. One or more modules may be continuously within the process and / or flow of execution, and the module may be located on one electronic device and / or distributed between two or more electronic devices. In addition, these modules can be executed from different readable comp ' yuter media with stored on themdifferent data structures. Modules can interact with local and / or remote processes, for example, according to a signal containing one or more packet data (for example, data from one component, by a signal interacting with another component in the local system, the distributed system and / or through the network, such as the Internet, withother systems). In addition, the components or modules of the systems described in the document may be rearranged and / or supplemented by additional components / modules / systems in order to facilitate the achievement of various aspects, objectives, advantages, etc. described in relation to them, but not limited to the exact configurations set forth in this figure of the drawing, as will be appreciated by a specialist in the art. Modules can interact with local and / or remote processes, for example, according to a signal containing one or more packet data (for example, data from one component, by a signal interacting with another component in the local system, the distributed system and / or through the network, such as the Internet, withother systems). In addition, the components or modules of the systems described in the document may be rearranged and / or supplemented by additional components / modules / systems in order to facilitate the achievement of various aspects, objectives, advantages, etc. described in relation to them, but not limited to the exact configurations set forth in this figure of the drawing, as will be appreciated by a specialist in the art. Modules can interact with local and / or remote processes, for example, according to a signal containing one or more packet data (for example, data from one component, by a signal interacting with another component in the local system, the distributed system and / or through the network, such as the Internet, withother systems). In addition, the components or modules of the systems described in the document may be rearranged and / or supplemented by additional components / modules / systems in order to facilitate the achievement of various aspects, objectives, advantages, etc. described in relation to them, but not limited to the exact configurations set forth in this figure of the drawing, as will be appreciated by a specialist in the art. by means of a signal interacting with another component in the local system, the distributed system and / or through a network, such as the Internet, with other systems). In addition, the components or modules of the systems described in the document may be rearranged and / or supplemented by additional components / modules / systems in order to facilitate the achievement of various aspects, objectives, advantages, etc. described in relation to them, but not limited to the exact configurations set forth in this figure of the drawing, as will be appreciated by a specialist in the art. by means of a signal interacting with another component in the local system, the distributed system and / or through a network, such as the Internet, with other systems). In addition, the components or modules of the systems described in the document may be rearranged and / or supplemented by additional components / modules / systems in order to facilitate the achievement of various aspects, objectives, advantages, etc. described in relation to them, but not limited to the exact configurations set forth in this figure of the drawing, as will be appreciated by a specialist in the art.

In addition, various aspects are described in the document in connection with the access terminal - AT. AT may also be referred to as a system, subscriber unit, subscriber station, mobile station, mobile phone, mobile device, mobile device, remote station, remote terminal, user terminal (IT), user agent (iA), user device or user equipment (IE ) A subscriber station may be a cellular telephone, a radiotelephone, a telephone with a session initiation protocol (ZIR), a wireless subscriber access station (WLC), a personal digital assistant (RSA), a portable device with availability

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wireless connection or other processing device connected to a wireless modem or similar device, facilitating wireless communication with the processing device.

In one or more embodiments, the described functions may be implemented in the form of hardware, software, firmware, a KO binder, microcode or any suitable combination of such. If implementedprogram, the functions can be stored on a computer-readable media or transmitted tothis in the form of one or more commands or code. A computer-readable media includes a computer media storage medium and media, including any medium that facilitates the transfer of a computer program from one location to another. Shelf life of the storage device can be any physical medium, which can be computer access. As an example, and not a limitation, such a storage medium for the comp ' The UE may contain an operational memory device (RAM, RAM), a permanent storage device (ROM, ROM), an electrically erased programmable ROM (EERRO), a ROM on a CD (CO-ROM) or another storage device on optical disk, a magnetic drive storage device or other magnetic storage devices, microprocessor (smart) cards and flash memory devices (for example, a card, a memory card, a flash drive ...) or any another media that can be used to carry or store the necessary program code in Qormi commands or data structures and which mozhezdiysnyuvaty access the computer. In addition, any connection is essentially called a computer-readable carrier. For example, if the software is transmitted from the MB site, server or other remote source using coaxial cable, fiber optic cable, twisted pair, digital subscriber line (TSAL, 08b) or non-wire technologies such as infrared, radio and microwave communication, then coaxial cable, fiber optic cable, twisted pair, digital subscriber line or wireless technology, such as infrared, radio and microwave communication, are included in the definition of the carrier. Magnetic disk and non magnetic disk, as used in the document, include a CD (CD), a laser disk, an optical disk, a digital multifunction disk (CDB, DVD), a flexible magnetic disk and a disk on the technology of LII-Gau, with magnetic disks of course reproduce data based on magnetic properties, while non-magnetic discs reproduce data optically using lasers.

As far as hardware implementation is concerned, processing blocks of various illustrative logic circuits, logical blocks, modules, and circuits described in connection with aspects disclosed in the document can be implemented or executed within one or more problem-oriented integrated circuits (A8IS), digital processors signals (U8R), devices for processing digital signals (08P0), programmable logic devices (PU), programmable vent arrays (PROA), discrete gate or transistor logic, discrete hardware components, in multi-processors, controllers, microcontrollers, microprocessors, other electronic devices designed to perform the functions described in the document, or any combination thereof. The universal processor can be a microprocessor, but as an alternative, the processor can be any ordinary processor, controller, microcontroller or terminal machine. The processor can also be implemented in the formcombination of computing devices, such as combinations of 08P and microprocessor, multiple microprocessors, one or more microprocessors, along with the basic tools of 08P or any other suitable configuration. In addition, at least one processor may contain one or more modules capable of performing one or more steps and / or actions described in the sub-document.

In addition, the various aspects or features described in the document may be implemented as a means, device, or product using conventional programming methods and / or techniques. Additionally, the steps and / or actions of a method or algorithm described in connection with aspects disclosed in a document may be implemented directly in the form of hardware, in the context of a program module performed by the processor, or a combination thereof. Additionally, in some aspects, stages and / or actions of the method or algorithm can be at least in the form of one element or any combination or set of codes and / or commands on a media readable medium and / or computer-readable medium that can be included in the computer software product. It is to be understood that the term "product", as used in the poem, covers a computer program,

In addition, the term "exemplary" is used in the document to indicate "serves as an example, instance, or illustration." Any aspect or design solution described in

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the document as "exemplary" should not necessarily be construed as predominant or as preferred by other aspects or design decisions. More preferably, the use of the term "exemplary" is intended to represent concepts in a specific way. As used in the application, the term "or" is preferably intended to include the "or" rather than the exclusive "or". That is, unless otherwise specified or not clear from the context, it is meant that "X uses A or B" means any of the natural inclusions permutations. That is, if X uses A; X uses B; or X uses both A and B, then "X uses A or B" is satisfied in accordance with any of the preceding cases. In addition, the form of singular (article "a" and "ap"),

As used in the document, the terms "output" or "output" refer to the general process of reasoning or to make a conclusion about the states of the system, environment and / or user of the observation data, as recorded by events and / or data. The conclusion can be used to identify a specific context or action, or can form distribution of probabilities in states, for example. The conclusion may be probabilistic, that is, the calculation of the distribution of probabilities relative to the interest states on the basis of consideration of data and events. The conclusion may also relate to the methods used to create events of a higher level, based on a set of events and / or data. Such a conclusion is the result of the creation of new events or actions, based on a set of observed events and / or storeddata of the event, in any case,

In FIG. 1 illustrates a wireless communication system 100 with many base stations 110 and many terminals 120, such as can be used in conjunction with one or more views. The base station (110) is usually a stationary station that communicates with the terminals and can also be called an access point, Node B, or some other computer terminology. Each base station 110 provides a coverage area for a particular geographic area or service area illustrated in FIG. 1 in the form of three geographic zones marked with 102a, 102b, and 102s. The term "cellular cell" may relate to the base station and / or its service area, depending on the context in which the term is used. To increase the capacity of the system, the geographic area / area of ​​service of the base station can be divided into a plurality of smaller zones (e.g., three smaller zones corresponding to the cell cell 102a in FIG. 1), 104a, 104b, and 104c. Each smaller zone (104a, 104b, 104c) can be served by the appropriate base transmitting station (VTZ). The term "sector" may relate to the WTZ and / or its service area, depending on the context in which the term is used. For segmented cell-based cells, BTZ stations for all sectors of this cell-cell are usually located together within the base station for the cell-cell. The methods of accumulation / use of Rome, described in the document, can be used for a system with sectors separated by cellular cells, and also for a system with many sectors not separated by cellular cells (for example, cell sets for a larger geographic area). For simplicity, the description below, unless otherwise specified, the term "base station" is used collectively for a stationary station serving the sector, as well as a stationary station serving cellular cell. In addition, the term "wireless AAN" is used in general to refer to a cellular cell that contains a plurality of sectors or a geographic area containing a plurality of cellular cells. as well as a stationary station, which serves a cellular cell. In addition, the term "wireless AAN" is used in general to refer to a cellular cell that contains a plurality of sectors or a geographic area containing a plurality of cellular cells. as well as a stationary station, which serves a cellular cell. In addition, the term "wireless AAN" is used in general to refer to a cellular cell that contains a plurality of sectors or a geographic area containing a plurality of cellular cells.

Terminals 120 are usually dispersed throughout the system, and each terminal 120 may be immobile or mobile. Terminals 120 may also be referred to as a mobile station, user equipment, user device, or some other terminology, as discussed above. Terminal 120 may be a wireless device, a cellular telephone, a personal digital assistant (RBA), a wireless modem card, and so on. Each terminal 120 can communicate with zero, one or more downlink and uplink base stations 110 at any given time. Downlink line (or direct line of communication) refers to the communication link from the base stations to the terminals, and uplink (or backlink) refers to the communication link from the terminals to the base station.

With centralized architecture, the system controller 130 is connected to the base stations 110 and provides for coordination and control for base stations 110. For example, as discussed in the document, the system controller can help obtain the data of the working metric

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characteristics for a plurality of base stations 110, data aggregation, and provisioning accumulation information Rome based on aggregate data. With distributed architecture, base stations 110 can communicate with each other as needed (for example, using a transport network, not shown). Data transmission over a direct line often occurs from one access point to one access terminal with a maximum or close to a data rate that can be supported by a direct link and / or a communication system. Additional forward link channels (for example, a control channel) can be transmitted from a plurality of access points to one access terminal. Data transmission backlink may be from one access terminal to one or more access ports.

In FIG. 2 shows an illustration of the self-organizing (self-organizing) or unplanned / partially scheduled wireless communication environment 200 according to various aspects. The system 200 may comprise one or more base stations 202 in one or more cellular cells and / or sectors that receive, transmit, retransmit and so on, wireless communications to one another and / or to one or more mobile devices 204. As illustrated, each base station 202 can provide communications coverage for a specific geographic area illustrated a four geographical areas pomichenyh206a, 206, 206s and 2066. Each base station 202 may comprise a transmitter circuit and shemupryymacha, each of which can in turn contain a number of components associated with the transfer ipryyomom signal (eg, processors, modulators, multiplexers, demodulators, multiplexers, antennas, etc.) as will be appreciated by a person skilled in the art. Mobile devices 204 may be, for example, cellular telephones, smart phones, portable computers, portable communication devices, portable computers, satellite radio devices, global location systems, personal digital assistants (PPE) and / or any other suitable device to communicate over a wireless network 200. The system 200 can be used in conjunction with various aspects described in the document to facilitate the provision of a wireless communication medium (200) as embodied in the document those.

In FIG. 3 illustrates a block diagram of exemplary system 300 that provides a basis for constructing a performance characteristic of the accumulation of Rome for various sectors of the mobile AΝ 306. A storage device 302 may be connected to base stations 306A, 306B, providing message management for sectors and devices (304), With such base stations, 306A, 306V. One or more performance metrics for sectors (306A, 306B) may be determined, and accumulation of Rome for each sector may be based on a quantifiable metric for this sector with at least one other sector. Accordingly, the accumulation of Rome can be managed in order to ensure cross-sectoral equivalence in the automotive AAN 306.

The storage device Rome 302 may comprise a data acquisition unit 308 which receives a performance metric with respect to the mobile sector AΝ 306A and at least one adjacent sector 306B. The metric of the performance may contain various suitable service quality parameters related to wireless communication. Exemplary metricworking characteristics can include the median value of the data rate, the average value of the data rate, the level of interference, ZNR, the ratio of guaranteedbat transfer to the median / average bit rate, achieved packet transmission delay, achieved latency packet transmission compared with the target orgarantied the delay of the packet transmission and / or the like or a combination thereof. Metric (s) of the workingcharacteristics for the sector (306A, 306B) can be calculated and received from the base station 306A, 306B, the serving sector (306A, 306B), or from the mobile device 304, which communicates with such base station 306A, 306B. The performance metrics can be transmitted to the data acquisition unit 308 via a communication link that binds the storage devices of the Ram to the base stations 306A, 306B, and / or the wireless communication line with the mobile device304.

The storage device 304 Rome may further comprise a control unit 310 that sets the intensity with which the devices (304) within the sector (306A, 306B) accumulate the Rome message. Installed intensity (os) accumulation Rome may be based on the metric of the performance characteristics relating to a particular sector (for example, 306A), with a similar performance metric, which applies to at least one additional sector (for example, 306B), or aggregated metrics of the working characteristics of a plurality of sectors. As a more specific example, the median value of the data transmission rate, which applies to sector A (306A), served by the base station 306A,

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can be forwarded to the data gathering unit 308. In addition, the median value of the data transmission rate relating to sector B (306B) served by the neighboring base station 306B may be forwarded to the data acquisition unit 308. The accumulation rate for the sector of 306A and related devices (304) can be based, at least in part, on the comparison of the median value of the data rate for sector A with the media speed of data transmission for sector B. According to some aspects, the accumulation intensity of Rome may be updated basis of further such comparison, for example, determined at periodic moments of time, after detecting a change in the threshold value in the metric (s) of the performance of the relevant sectors (306A, 306B), and / or like or a combination of such.

The data accumulated by the data collection unit 308 may be stored in a memory device 312 (which, for example, may contain any suitable form of electronic and / or magnetic storage media such as disk drives, optical disks, flash memory, operational a storage device and / or the like). In addition, results of comparisons of the metrics of the operational characteristics performed by the control module 310 may be stored in the memory device 312 for reference information. For example, when determining, refresh the established rate of accumulation of Rome on the basis of changes in the metric (s) of the working characteristics, the results or preliminary intensity (osticular) accumulation Rome may be obtained from the storage device 312.

It is to be appreciated that any number of base stations 306A, 306B (RAW) 306 of the system 300 may be included. Base stations 306A, 306B may include wireless transmitters, including cell broadcast transceivers, transmitters a wireless interoperability standard, ultra high frequency transmitters (e.g., a [ShimAX] standard for the global compatibility of communication devices for access in the sub-frequency range) and / or related to the node 306 of the conventional wireless mobile RAW. Thus, different cellular, mobile communications and similar access technologies may be included in the mobile RAID node 306.

In FIG. 4 illustrates a block diagram of an exemplary control device 402 according to one or several aspects of disclosure of the object of the invention. Device 402 may be combined with a centralized RAID controller (e.g., see System Controller 130 of Figure 1 above), or may be distributed in one or more RAW base stations (e.g., base stations 306A, 306B in FIG. 3, above or transport network 506 of FIG. 5 below). Device 402 can receive metrics of wireless performance, provided by such base stations, aggregate data and determine and update the intensity of the accumulation of Rome sector based on sector metrics, compared with aggregated data metrics. Accordingly, system 400 provides an equally accessible method of accumulation Rome, which can determine the desired metric of the '

The management unit Rome 402 may comprise a storage device 406 that receives data through the RA4 communication component interface 404 (e.g., base stations). The storage device 406 comprises a data acquisition unit 410 that receives the data of the metrics of the work specification relating to the sectors of the RAW, and a control module 412 that determines the accumulation intensity of Rome for the RAW sectors based on the comparison of the metric of the working sector characteristics with the metric of the working characteristics of at least one other sector. Thus, the device 402 can provide based on the equivalence of the intensity of the accumulation of the Rome sector on the basis of the desired metrics that relate to the wireless communication. Thus, sectors that identify bad metrics may be given a higher rate of accumulation Rome, resulting in a greater number of Rome, which are on the device in a sector with poor performance. Sectors that exhibit relatively strong metrics, you can provide a lower rate of accumulation Rome, which follows a smaller number of Rome, issued on the device of strong sectors. Thus, if there is a greater number of Rome, sectors with a low metric can more quickly reduce the transmission capacity of neighboring transmitters that interfere. Similarly, sectors with strong metrics have less ability to reduce the transmission power of neighboring transmitters. Such is sectors with a low metric can more quickly reduce the power transmission of neighboring transmitters interfering. Similarly, sectors with strong metrics have less ability to reduce the transmission power of neighboring transmitters. Such is sectors with a low metric can more quickly reduce the power transmission of neighboring transmitters interfering. Similarly, sectors with strong metrics have less ability to reduce the transmission power of neighboring transmitters. Such is

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the scheme provides significant benefits. Initially, devices that are most in need of reducing the power of interfering transmissions give a great opportunity to do this. Then, devices that have less need to reduce the power of interfering transmissions have less chance of doing this. Where the weak sector is neighboring with a strong sector, it is essential that the weak sector will be able to reduce the transmission capacity of the neighboring sector, while avoiding the significant decrease of the power of its own signal with the help of Rome issued to a strong sector.

The control unit Rome 402 may further comprise a Rome regulation device 408. The control device 408 may be set for intensity devices for delivering accumulated Rome based on metric inter-sectoral performance. Additionally, the device 408 control can control the accumulation intensities of Rome on the basis of the variable of the metric operating characteristics of the sector; the intensity of accumulation can be updated on the basis of the differences in the metric (s) of the working characteristics of the sector in comparison with the metrics of the neighboring sectors.

The control unit 408 may include an implementation module 420 that determines the intensity with which the sector devices can deliver the accumulated Rome. The intensity of issuancecan be determined in addition to the accumulation intensities determined by the accumulation device 406 Rome. Thus, the device can accumulate in time a number of Rome, but may be limited to how fast it can use these Rome. Consequently, if the metricworking characteristics for the device suddenly changes to much worse, the ability of the device toexpress many accumulated Rome in a short period of time, which may significantly impair the workingcharacteristics of neighboring devices, can be modulated at least with the help of the set of accumulated for the service sectordevice. At least in one other aspect, the issuance of Rome may be further limited to the maximum intensity of the issuance of Rome. In the following aspects, the intensity of the issuance of Rome may depend on the degree of unfavorable conditions for the sector. In at least one aspect, the issuance of Rome can be modulated according to a combination of previous or similar mechanisms.

As discussed above, the intensity of issuance of Rome may be predetermined intensity and / or sector-specific intensity, established on the basis of a comparative metric of the working characteristics, similar to those determined by the control module 412 for setting the intensity of accumulation (for example, which set the degree of unfavorable conditions for the sector compared with others sectors). In one or more aspects, the intensity of the issue is modulated in accordance with its associated accumulation intensity Rome (for example, Rome unit weight messages, or, in other aspects, modulation may include the weighting factors of the weighted Rome) for the sector serving device. In such aspects, the implementation unit 420 can optionally determine whether sending a terminal terminal in Rome, based on the accumulation rate of Rome,

The control unit 408 may further comprise a priority adjustment module 418 that can update the intensity of the accumulation of Rome sectors in the RAW. Updatingintensities can be based, at least partially, on comparisons of the metric of the currentproduction characteristics for such sectors and one or more neighboring sectors. The following example is presented to illustrate one aspect in which may determine the intensity of accumulation Rome; but it should not be interpreted as limiting. More preferably, other mechanisms for updating the accumulation intensities of the Rim, based on the metrics of the performance of a plurality of sectors in the RAW that are known to specialists in the art or become known to those skilled in the art with the help of the context presented in the document, are included in the document as part of the disclosure of the object of the invention.

For the purposes of the following example, the following values ​​are defined:

t_and(k) is the median value of the metric of the working characteristics of the terminals of the AT sector and in the period

to;

G | (k) = the intensity of the accumulation of HIIM in the sector and in the period k;

Mi (k) = median for t, (k) \ / |, which are neighbors and, including.

At the end of the adaptation period (k) of the intensity of Rome (for example, the time interval at the end of which the priority correction module 418 determines the renewed intensity of Rome), the sector can be updated η for the period (k + 1) (or, for example, leave η essentially unchanged where applicable) . The updated Gu is stored in the storage device 416 and can be used by the processor 414 during the period (k + 1) for the formation of Rome messages with a modified intensity value. The adaptation of the intensity of accumulation Rome can be based on

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equivalence criteria that use a comparison of the performance characteristics of the sectorcompared with the data of the aggregate performance of one or all other sectors and including the sector and at least in some embodiments. The following algorithms provide one mechanism for updating η based on cross-sectoral equivalence.

If t, (k) <M | (k), then r (k + 1) = r, (k) + A⁺, (k) (where Δ⁺, (k) is a positive value).

If t, (k)> M, (k), then r_and(k + I) = r, (k) -L, (k) (where Δ ", (k) is a positive value).

Thus, in the case where the median value of the metric of the working characteristic (for example, the data rate) for the sector m ^ k) is less than the median value of the metric of the working characteristic for the set of sectors Mi (k) (for example, all sectors and, including the sector i), the intensity of r_and the accumulation of which sector and can be increased by a positive magnitude. On the contrary, in the case when the median value of the metric of the performance for the sector is less than or equal to the median value of the metric of the performance for a number of sectors, the intensity of accumulation by the sector for the sector and can be reduced to a positive value. In addition to the foregoing, the intensity of accumulation by whom maybe limited to the values ​​of maximum and / or minimum intensity of accumulation. A maximum intensity can be determined to prevent a sector that is in an unfavorable environment, unduly worsening the work of neighboring sectors. The minimum intensity, on the other hand, enables the sector to serve several users who observe an excessive obstacle, even if the sector as a whole is not in a disadvantageous conditions relative neighboring sectors.

In accordance with one or more additional aspects of disclosure of the object of the invention, the priority adjustment module 418 may update the intensity of the accumulation by the sector of a constant magnitude or variable value. Permanent value can be predefined on the basis of various radio communication parameters of the mobile node KAN (eg, interference, scattering, multi-beam propagation). It is necessary to estimate that the radio communication parameters can be updated at different times and used to modify the constant value. Variable value can be based on various indicators present during one or several periods, close in time to a specific period (for example, it can be used indices for the period k, aggregate state of the indicators during the period to and / or one or several previous periods k-2, k-1, or the like). Various indicators may include the performance characteristics for the sector or one or more neighboring sectors, the various radio communication parameters discussed above with respect to the constant value, or a combination of such or similar. Accordingly, the intensity of accumulation by whom can be corrected, changing the values. As an example, if the sector has significantly worse performance than its neighboring sectors, the corresponding accumulation rate by whom can be increased by a relatively large amount.

In accordance with one or more other aspects, the management device 402 may include, optionally, a priority module 422 (assignment) and a request analyzer 424. The Priority Module 422 can set a weighting factor for someone who emits devices that are inside the sector. The weighting factor can be based, at least in part, on the current intensity of accumulation by someone for this sector. The weight factor can be used by receiving transmitters to determine whether it is necessary to observe or ignore who (for example, based on the metrics (s) of the performance characteristics of the sector associated with receiving transmitters). The query analyzer 424 can use the intensity of accumulation by someone to determine the priority by someone who receives a particular transceiver (for example, a base station, AO). Priority by whom can be grounded at least partially, on the intensity of accumulation by someone for the receiving transmitter, similarly to the weight coefficient by the one discussed above. In this way, the analyzer 424 can ask the user, based on the priority, to determine whether the transmitter receiver must be followed or ignored by someone.

In FIG. 5 is a block diagram of system 500 that provides management for a mobile AP according to aspects disclosed in the document. System 500 may include a mobile device 502 associated with base stations 506A, 506B, 506C, 506YC. In addition, the base stations are linked to the transport network 506, which allows the base stations to exchange data. The 508 accumulation device is associated with the transport network. In one aspect, the data of the metric of the performance for the various sectors ^ N are determined and shared by the base stations 506A, 506B, 506C, 506Y with the help of the transport network 506. In another aspect, the data of the metric of the performance for different sectors may be downloaded over the network to the device 508 accumulated by the basic stations 506А, 506В,

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506C, 506U. According to yet another aspect, the performance metrics may be determined based on OTA messages received on mobile devices 502 within sectors. Mobile devices can analyze OTA messages in order to determine the metrics of the operational characteristics of such messages. Such metrics can then be supplied to the RA and base stations 506A, 506B, 506C, 506U and / or to the accumulation unit 508 of Rome with the help of such base stations 506A, 506B, 506C, 506Y.

The device 508 of accumulation Rome can determine the intensity of accumulation of Rome for sectors (506A, 506B, 506C, 506Y) in PÃ © den and distribute Rome to these sectors to use devices of such sectors. In another aspect, the intensity of the accumulation of Rome for each sector can be determined using base stations 506A, 506B, 506C, 506, connected with such sectors. Accumulated Rome can be distributed to mobile devices 502 as soon as the accrued ones.

The control module 504 of Rome, associated with the mobile device 502, can modulate the intensity with which Rome is issued to other devices in the neighboring sectors (506A, 506B, 506C, 506Y). The delivery rate for the mobile device 502 can specify how often the device 502 can send accumulated Rome. Intensity of issuance can be determined on the basis of the metric of the performance characteristics of wireless transmission in the sectors defined, as described above. In addition, the intensity of the accumulation of Rome and / or the issuance of Roma can be updated on the basis of changes in metrics, as described in the document. Accordingly, the system500 provides an equally accessible mechanism for the accumulation of messages Rome and the emancipation of Rome, which uses the metrics of the working characteristics of the sector in comparison with one or several neighboring sectors.

In FIG. 6 illustrates a block diagram of system 600 comprising exemplary base station 602, which provides management of the accumulation of Rome on the basis of the metrics of the operating characteristics of sectors inRA. In at least one aspect of the disclosure of the object of the invention, the base station 602 may define the metrics of the performance on the basis of wireless transmission, specific for the RA section. In addition, the base station 602 can provide personal communication functions for the mobile communication network relative to the mobile devices 604 that are inside the geographic area serving the network (for example, see Figures 1 and 2). The base station 602 may continue broadcasting the personal communications until the answer is received by the target mobile device, will not be accepted from the mobile networkcommanding the completion of personal contact ' the timer of the action supported by the base station 602 or the (combination of) these will not be completed. According to specific aspects, base station 602 may support a registration unit for a mobile device relative to the tracking / location area served by the base station 602. Additionally, the registration counter can be maintained even if the mobile device is incapable of responding to a personal communication event. Accordingly, the system 600 spryyayemizhsystemniy mobility using a personal communication device 604 independently from other systems (not shown) and maintaining device registration, despite neuspishnuvidpovid personal communications (for example, when mobile device meets napersonalnyy call another system). supported by base station 602, or (not fulfilled) a combination of such. According to specific aspects, base station 602 may support a registration unit for a mobile device relative to the tracking / location area served by the base station 602. Additionally, the registration counter can be maintained even if the mobile device is incapable of responding to a personal communication event. Accordingly, the system 600 spryyayemizhsystemniy mobility using a personal communication device 604 independently from other systems (not shown) and maintaining device registration, despite neuspishnuvidpovid personal communications (for example, when mobile device meets napersonalnyy call another system). supported by base station 602, or (not fulfilled) a combination of such. According to specific aspects, base station 602 may support a registration unit for a mobile device relative to the tracking / location area served by the base station 602. Additionally, the registration counter can be maintained even if the mobile device is incapable of responding to a personal communication event. Accordingly, the system 600 spryyayemizhsystemniy mobility using a personal communication device 604 independently from other systems (not shown) and maintaining device registration, despite neuspishnuvidpovid personal communications (for example, when mobile device meets napersonalnyy call another system). the base station 602 may support a registration unit for the mobile device relative to the tracking / location area served by the base station 602. Additionally, the registration counter can be maintained even if the mobile device is incapable of responding to a personal communication event. Accordingly, the system 600 spryyayemizhsystemniy mobility using a personal communication device 604 independently from other systems (not shown) and maintaining device registration, despite neuspishnuvidpovid personal communications (for example, when mobile device meets napersonalnyy call another system). the base station 602 may support a registration unit for the mobile device relative to the tracking / location area served by the base station 602. Additionally, the registration counter can be maintained even if the mobile device is incapable of responding to a personal communication event. Accordingly, the system 600 spryyayemizhsystemniy mobility using a personal communication device 604 independently from other systems (not shown) and maintaining device registration, despite neuspishnuvidpovid personal communications (for example, when mobile device meets napersonalnyy call another system). even if the mobile device is incapable of answering the event of personal communication. Accordingly, the system 600 spryyayemizhsystemniy mobility using a personal communication device 604 independently from other systems (not shown) and maintaining device registration, despite neuspishnuvidpovid personal communications (for example, when mobile device meets napersonalnyy call another system). even if the mobile device is incapable of answering the event of personal communication. Accordingly, the system 600 spryyayemizhsystemniy mobility using a personal communication device 604 independently from other systems (not shown) and maintaining device registration, despite neuspishnuvidpovid personal communications (for example, when mobile device meets napersonalnyy call another system).

A base station 602 (e.g., an access point ...) may comprise a receiver 610 that receives a signal from one or more mobile devices 604 through a plurality of receiving antennas 606 and a transmitter 632 which transmits signals to one or more mobile devices 604 via a transmit antenna (s) 608. The receiver 610 may receive information from the receiving antenna606 and may further comprise a signal receiver (not shown) that receives the uplink data transmitted by the mobile device (s) 604. Additionally, the receiver 610 with interactivity is related to demodulate Orom 612, which demodulates the received information. The decoded symbols are analyzed by the processor 614, which in addition supplies the symbols to the modulator 630 for transmission. The processor 614 is connected to the storage device 616, which stores information related to functions,

Processor 614 is further coupled to the data acquisition unit, which can receive information about the performance metric relating to the base station 602 and at least one neighboring base station (not shown). Information accumulated in assembly 618

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data can be stored in the storage device 616 for accessing the other components (612, 614, 620, 622, 624, 626, 628, 630) of the base station 602. The control unit 620 can set the intensity with which the mobile devices 604 within the service sector The base station 602 (and, for example, communicatively connected with it), accumulate a message Rome. The intensity of accumulation can be based on a comparison of the performance metric associated with the base station 602 and at least one other of the neighboring base stations as described in the document. The values ​​of the accumulation intensity may be stored in the storage device 616 in order to be accessible to the other components (612, 614, 620, 622, 624, 626, 628, 630) of the base station 602.

The priority adjustment module 622 may update the accumulation rate of Rome on the basis of the subsequent metrics of the transmission performance of the base station 602. Thus, if the median value of the data rate for the devices 604 associated with the base station 602 decreases in comparison with the median data rates for the neighboring sectors , the priority adjustment module 602 may increase the intensity of the accumulation of Rome for such devices 604. It is necessary to estimate that the preceding example is only one mechanism To update the intensity of accumulation and disclosure ob'yektavynahodu not be construed in such a limited example. Preferably, other examples presented in the document, examples,

In addition to the preceding one, the implementation module 624 can determine the intensity with which the device 604 can send or deliver stored Rome. Intensity of issuancecan be set on various indicators, including the intensity of accumulation Rome for the sector, the number of devices 604, operating in the sector, one or more metrics of the workingcharacteristics of the sector or a combination of such or similar. According to some aspects, the implementation module 624 can modulate the intensity with which the device 604 outputs a message to Riem, depending on the intensity with which the sector accumulates Rome (for example, where modulation may include Rome weight or may have a unit weight). At least in another aspect, the implementation module 624 based, at least in part, on the intensity of the accumulation of Rome and / or the intensity of issuance of Rome may determine,

The base station 602 may further comprise a request analyzer 626, Rome, which determines the Rome priority adopted by the neighboring sector mobile device 604. Priority can be set based on the intensity of the accumulation of Rome and the corresponding intensity and / ormetric of the performance for another sector. In addition, the base station 602 may comprise a priority module 628 based on, at least partially, the intensity of the accumulation of Rome's corrected Rome weight, issued or sent by the devices 604 in the sector. Accordingly, adjacent devices adopted by Rome, can determine whether to adhere to the issued Rome, based on, at least partially, weight. Optional, in the case when Rome has a unit weight, it must observe all such adjacent devices.

In FIG. 7 illustrates a block diagram of exemplary system 700 comprising a mobile device 702. The mobile device 702 may have a configuration capable of communicating wirelessly with one or more base stations 704 and associated (subsidiary) mobile networks (not shown). The mobile device 702 can additionally have a configuration with the capability of obtaining metrics of the performance of the neighboring base stations and transmitting the metrics to the serving base station 704 as described in the document.

The mobile device 702 includes at least one antenna 706 (e.g., a transmitter receiver (s) or a group of such receivers that contain an input interface) that receives a signal (for example, a radio signal such as an OTA message) and a receiver (s) 708 which performs typical actions (for example, filters, amplifies, reduces the frequency, etc.) received a signal. In accordance with at least some aspects, the processor (s) 712 can analyze the signals received from the demodulator (s) 710, and obtain the metrics of the characteristics of the radio communications for such signals. In general, the antenna 706 and the transmitter 726 (collectively referred to as the receiver-transmitter) can be executed with the possibility of facilitating the wireless exchange data with the base station (s) 704.

The antenna 706 and the receiver (s) 708 can also be coupled to the demodulator (s) 710, which can demodulate the received symbols and deliver them to the processor (s) 712 for evaluation. In some aspects, receiver 708 may receive OTA transmissions from base stations (704). In a particular example, the receiver 708 may receive an OTA transmission from a neighboring base station (e.g., in the form of a portion of broadcast signals from such a base station) containing a metric of the working

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characteristics of the neighboring base station. OTA messages can be analyzed in the mobile device 702 and / or sent to the base station 704 for analysis. In addition, the receiver 708 may receive a second OTA message from a neighboring base station containing Rome in order for the mobile device 702 to lower the power in the transmitter 726.

It is to be appreciated that the processor (s) 712 can control and / or access one or more components (706, 708, 710, 714, 716, 724, 726) of the mobile device 702. Additionally, the processor (s) 712 may execute one or more modules, applications, mechanisms, or the like (716, 718, 720, 722) containing information or control effects (adjustments) relating to the functions of the mobile phone-tube 702. For example, such functions may include wireless communication with the remote devices (704), reception of OTA messages, analysis of such messages, definition the metric of the characteristics of radio communication for wireless transmission, reception and processing Rome or the like, as described in the document.

The mobile telephone handset 702 may further include a storage device 714 that is interconnected with the processor (s) 712. The memory device 714 may store the data to be transmitted, received, and the like, and the commands applicable for conducting the wireless communication with a remote device (704). Additionally, the storage device 716 can store modules, attachments, mechanisms, etc. (718, 720, 722) executed by the above-mentioned processor (s) 714.

In some aspects of the disclosure, the mobile device 702 may include an analysis module 716 that determines the metrics of the performance (for example, the median or median value of the data rate, interference, δNP, etc.) of the wireless signals received in the mobile device 702. In addition, , the routing module 718 can wirelessly transmit the performance metrics for one or more OTA messages received in the receiver 708 to the base station 704 serving the mobile device 702. Based on at least partially the value The metric of the performance characteristic, serving the base station 702 may send to the mobile device 704 a message that includes the first. Rome may be issued to a mobile device 702 for use with such a device 702 in controlling the power of a neighboring transmitter,

In accordance with specific aspects of disclosure, the mobile device 702 may include a priority unit 720 that identifies and processes a weighting factor for accepted Rome. Addition, the priority module 720 can determine the weight factor for Rome to be used to use the mobile device 702. In any case, weighing may be determined, at least in part, according to the accumulation rate of Rome relating to the sector serving mobile device 702. Component 722 of the arbitration may give an indication the processor 712 adhere to Rome UI_ (for example, with regard to Pb data transmitted by the mobile device 702) based on the comparison of the weight factor of Rome UI_ and the metric of the performance characteristic for the sector. The arbitration rules stored in the arbitration device 714 can determine when it is necessary to observe Rome U.S.,

The above systems have been described with respect to the interaction between several components, modules and / or communication interfaces. It is to be appreciated that such systems and components / modules / interfaces may include those components or subcomponents included therein, some of the components or subcomponents and / or additional components indicated. For example, the system may include a storage device 302, a storage device, a configuration device 408 Rome and the control module Rome 504 or another combination of these and other components. The components can also be implemented as components, mainly communicatively combined with other components than those included in the parent (basically in them) components. Additionally, it should be noted that one or more components can be combined into a single component, which provides aggregate functionality. Example, the data collection unit 308 may include a storage device 312, or vice versa, so that, with the help of a single component, it facilitates the reception of the metrics of the working performance of the wireless communication and the storage of the received metric information. The components may also interact with one or more other components not specifically described in the document, but known to those skilled in the art.

In addition, various parts of the disclosed systems above and the methods below may include, or compiled from using artificial intelligence or knowledge or rules-based rulescomponents, subcomponents, processes, tools, techniques or mechanisms (for example, processors with the support of processing of vector data, neural networks, expert systems, Bayesian trusted networks, fuzzy logic, data fusion processors, classifiers ...). Such components are in

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among other things and in addition to the already described in the document, can automate some mechanisms or processes carried out with this to make parts of the systems and methods more adaptive, as well as effective and intelligent.

Taking into account the exemplary systems described above, the methods that can be carried out according to the disclosed object of the invention will be better understood with reference to the schemes of the sequence of operations of FIG. 8-10. Although, for the sake of simplicity, the methods are shown and described in the sequence of steps, it should be understood that the claimed object of the invention is not limited to the sequence of stages, as some steps may occur in different stages of the / or simultaneously with the other stages of the depicted and described in the document. In addition, not all illustrated steps may be required to implement the methods described below. In addition, it should be further appreciated that the techniques disclosed below and throughout this description may be retained on the product in order to facilitate the transport and transfer of such techniques to the computers. It is understood that the term "product"

In FIG. 8 shows a sequence of operations of exemplary mode 800 that provides inter-sectoral equivalence in reducing interference for mobile communications. At step 802, method800 may receive a performance metric for at least two mobile base stations. The metric of the performance may be such as that relating to the quality of the wireless communication of the two mobile base stations. As specific examples, the performance metric may include the median value of the data rate, the mean value of the data rate, the signal interference, 8YP, the percentage of the guaranteed bit rate or similar metric of the wireless signals, or a combination of such.

In one or more aspects, at least two mobile base stations may be adjacent to the base stations of the mobile RAW node. In this case, wireless transmission of base stations can often interfere with each other in receiving devices. Metric characteristics of such signals can be determined in receiving devices and transmitteddirectly to base stations. In another aspect, the characteristics metrics can be derived from the uplink signals received at the base stations from the wireless devices (for example, metrics can be specified within uplink signals, or can be directly analyzed uplink signals, in order to determine the metric characteristics of such signals). Information of metrics of a performance characteristic can be used jointly by base stations,

At step 804, method 800 may determine the intensity of the accumulation of Rome for devices in the frames of the sector of the mobile RAID node. Intensity can be based, at least in part, on the comparison of the performance metric of at least two base stations. As a specific example to illustrate the previous, the average data rate for the sector cancompared with the average data rate for the neighboring sector (s). Intensity accumulation Rome can then be established on the basis of this comparison. In one particular aspect, the performance metric data for all sectors can accumulate in order to generate aggregated metric data for the sector's performance. The intensity of the accumulation of Rome for each sector can be based on a comparison of the metrics operating characteristics for each sector with aggregated metric data workingcharacteristics. Accordingly, method 800 provides an algorithm for determining the accumulation of Riem based on the interconnections of the wireless performance of the nodal mobile RAW sectors. With such an algorithm, the probability that the workcharacteristics of the sector is improving due to the poorly operating sector, providing an increased reliability for mobile communications may be reduced.

In FIG. 9 illustrates a sequence of operations of exemplary method 900 that can control the intensity of the accumulation of Rome sector mobile node RAW to provide inter-sector access to the node. At step 902, method 900 may receive a metric of working characteristics for at least two mobile base stations. At step 904, method 900 may determine the intensity of the accumulation of Rome for the sectors of the mobile RAW node, which each station serves from at least two base stations. At step 906, method 900 may determine the intensity of the issuance of Rome for devices in each sector based on, at least in part, the accumulation intensity of Rome. Thus, the frequency with which a particular device (or, for example, a set of devices) can issue messages Rome, can be determined using the intensity of accumulation. Other factors

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the intensity of issuance, may include the number of devices in the sector, associated with a specificdevice metric of the performance compared with other devices in the sector, the typecircuit, which involves a specific device (for example, calls with a high qualityquality may be given a higher value of issuing intensity to maintainproductive characteristics such calls, problems with poor quality of service maybe a lower value of the intensity of issuance, because the quality is not so much relative and impact, and so on), or the like, or a combination thereof.

At step 908, method 900 may receive changes in the metrics of the performance. For example, the metrics of the performance can be re-calculated in the subsequent time moment. As a specific example, the metrics of the performance can be recalculated periodically. Current metrics of the performance (or, for example, changes in current metrics in comparison with the previous metrics) can be used for repeated calculation of the intensity of accumulation by someone. In step 910, method 900 can update the accumulation rate for the sectors of the mobile node KAN based on the comparison of the performance characteristics of the sector with the aggregated metric of the sector's performance. Thus, if the metric of the sector's performance is below the aggregated metric of the working characteristics (or, for example, less aggregate metric of the performance characteristic of the threshold value), then the intensity of accumulation by such a sector can be increased. Thus, where the metric of the working characteristics of the sector is more than an aggregated metric of the working characteristics (or, for example, more than the total metrics of the work characteristic plusoriginal value), the accumulation rate of Kim for sector can be reduced. There, demetric performance of the sector is essentially equivalent to the aggregated metric of the workingcharacteristics, the intensity of accumulation of Kim can be increased, reduced or left without changes. In addition to the previous, changes in the metric of the working characteristics of the sector can be based on a constant value (for example, determined on the basis of previous intensities of Kim's accumulation, the conditions of the radio communication node of mobile KANN,

At block 912, method 900 may set the sector priority based on the intensity of the accumulation. Sector priority can be used to determine whether the receiving device of the Kim accumulation intensity, taken in the device sector, should be supported. The priority may be based, at least in part, on the intensity of Kim's accumulation for the sector. Alternatively, or in addition, the priority may be based on the weight coefficient of the adopted Kim. At block 914, method 900 may establish a weight factor for Kim, issued by the sector device, based, at least in part, on the metric of the performance for the sector or the intensity of Kim's accumulation. At block 916 a command is given to observe the adopted by Kim on the basis of sector priority, Kim's weight factor, or both.

In FIG. 10 illustrates a sequence of operations of exemplary method 1000 that facilitates inter-sectoral equivalence for a mobile CA node. At step 1002, method 1000 may receive a performance metric of a base station from an OTA transmission transmitted from a base station. At step 1004, method 1000 can send a metric of performance to a serving base station. At step 1006, method 1000 may receive Kim based, at least partially, on the metric of the performance. At step 1008, method 1000 may be followed by Kim based on the weighting factor Kim or metric of the performance for the serving sector, or both. Kim's compliance may additionally include the stage of alienation of the power of wireless transmissions. At step 1010, method 1000 can analyze the metric of the sector's performance for the serving sector. The analysis may relate to an OTA message received from the serving base station. At step 1012, method 1000 may accumulate a message based on, at least partially, the metrics of the working sector characteristics, in comparison with the aggregated metric of the sector's performance, with the aggregated sector performance metric containing at least the information relating to the base station.

In FIG. 11 is a block diagram of exemplary system 1100 that can facilitate wireless communication in accordance with some aspects disclosed in the document. On the downlink, in the point of reference 1105, the data transfer processor 1110 receives, formats, encodes, performs interleaving and modulates (or displays a symbol) traffic data and provides symbols

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modulation ("data symbols"). Modulator 1115 symbols accepts and processes data symbols and pilot symbols and provides a stream of characters. A symbol modulator 1120 multiplexes the data and pilot symbols and outputs them to the transmitter unit 1120 (TMTP). Each symbol transmission may be a data symbol, a pilot symbol, or a zero signal value. Pilot symbols may be sent continuously in each symbol period. Symbolic signal can be multiplexed with frequency division (PC), multiplexed with orthogonal frequency division (ORUM), multiplexed with time division of the mnals (TYUM), multiplexed code division (CUM), or suitable combination of such or similar modulation and / or transmission methods.

TMR 1120 receives and converts a stream of symbols into one or more analog signals and additionally converts analogue signals to the operating state (for example, amplifies, filters and converts with increasing frequency) to form a downlink signal suitable for transmission over a wireless channel. The downlink signal is then transmitted through the antenna 1125 to the terminals. In terminal 1130, the antenna 1135 receives a downlink signal and transmits an received signal to the receiver unit 1140. The receiver unit 1140 leads to the operating state (for example, filters, amplifies and reduces the frequency of the received frequency) and receives the signal and digitizes the state of the signal to receive the samples. The demodulator 1145 symbols demodulates the received pilot symbols and supplies their processor 1150 to estimate the channel. The demodulator 1145 additionally accepts the processor 1150 estimate of the frequency response relative to the downlink, performs a data modulation over the received symbol data to obtain data symbol estimates (which are the estimates of transmitted data symbols), and delivers data symbol estimates to the data processor 1155 of the RHC (receive) which demodulates (that is, the inverse of the symbol), performs reverse interleaving and decodes the data symbol to restore the data transmitted traffic. Processing using the demodulator of 1145 characters and RX processor 1155 DATA is relatively vzayemnodopovnyuyuchoyu processing symbol modulator 1115 and TX data processor 1110, respectively, at access point 1105.

On the uplink, TX n, the data processor 1160 processes traffic data and providessymbols of data. Modulator 1165 symbols accepts and multiplexes data symbols with the characters of the pilot signal, performs modulation and provides a stream of characters. The transmitter unit 1170 then receives and processes the character stream to form an uplink signal transmitted by the antenna 1135 to access point 1105. Specifically, the uplink signal may meet the requirements of the 5C-RUMA (single-frequency RFUM) and may include the mechanism of the spin-off frequency transition, as described in the document.

At the access point 1105, the uplink signal from the terminal 1130 is received by the antenna1125 and processed by the receiver unit 1175 to receive the sampling. Demodulator 1180 characters then processes the sample and provides received pilot symbols and estimates of the symbol data for the uplink. The RH data processor 1185 processes the data symbol evaluations in order to restore the traffic data transmitted by the terminal 1130. Processor 1190 performs channel estimation for each active terminal transmitted by the uplink. A plurality of terminals can transmit a pilot simultaneously on the uplink on their respective designated pilot subband sets, with pilot subbands set to be interleaved.

Processors 1190 and 1150 control (eg, regulate, coordinate, organize, etc.) work at the access point 1105 and the terminal 1130, respectively. The relevant processors 1190 and 1150 may be associated with storage devices (not shown) that store code programs and data. Processors 1190 and 1150 can also perform calculations to obtain the frequency pulse performance estimates for the uplink and the downlink, respectively.

For a multiple access system (for example, 5C-RUMA, RUMA, RUM, SUMA, TUMA, etc.), a plurality of terminals can simultaneously transmit on the uplink. For such a system, pilot subbands can be shared by different terminals. Channel estimation methods can be used in cases where pilot subbands for each terminal cover a full operating frequency band (possibly in addition to the edges of the band). Such a subband band of pilot signals will be desirable to receive frequency separation for each terminal. The methods described in the document may be implemented by various means. For example, these methods can be implemented hardware, software or a combination of such. For hardware execution, which can be digital, analog or digital, and analog, processing modules used to estimate the channel,

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signal processors, digital signal processing devices, programmable logic devices (PBS), programmable gate arrays (ΡΡΟΑ), processors, controllers, microcontrollers, microprocessors, other electronic modules designed to perform the functions described in the document, or combinations of such . In software implementation, execution can be with modules (for example, procedures, functions, and so on) that perform the functions described in the document. Program codes can be stored in the storage device andcomplete processors 1190 and 1150.

In FIG. 12 and 13 illustrate block diagrams of exemplary systems 1200, 1300 that provide and / or promote the accumulation of Rome based on the metrics of sector performance in the mobile AΝ. System 1200 contains a module 1202 for obtaining a performance metric for the mobile sector RANs sector. Module 1202 can additionally obtain a metric of workingcharacteristics for at least one neighboring sector. In at least one aspect, the metrics of the performance can be combined into a single aggregated metric of the wireless communication node of the mobile PBN. System 1200 may further comprise a module 1204 that sets the intensity with which devices in the sector accumulate Rome. Module 1204 can set the intensity, at least partially, on the comparison of assessments of the working characteristics for the sector and the assessment (ok) of the performance characteristics of the neighboring sectors (a).

System 1300 may include a module 1302 for receiving wireless OTA messages. The module may receive the first OTA message that contains the metric of the working characteristics for the mobile AAN sector. The module 1302 can then receive a second OTA message containing Rome. The first OTA message and / or the second OTA message and the information relating thereto may be supported in the data storage module 1306. Addition to the previous one, the system 1300 may include a module 1304 intended to send an OTA message to a serving base station. The 1304 module can be transmitted to the serving base station, for example, the first OTA message or the least the performance metric. In one particular aspect, the response to the first OTA message from the serving base station can determine whether the system 1300 should follow Rome.

The foregoing includes examples of aspects of the claimed object of the invention. Of course, it is impossible to describe each potential combination of components or methods for describing the claimed object of the invention, but one skilled in the art will appreciate that many additional combinations and changes in the claimed object of the invention are possible. Accordingly, it is understood that the disclosed object of the invention covers all such changes, modifications and variations that fall within the scope and scope of the appended claims. In addition, to the extent that the terms "includes," "has" or "which has" are used in the detailed description or in the points of the claims, such terms are intended to be inclusive in a meaning similar to the term "containing" as "which contains "

FORMULA INSTRUCTIONS

1. A mobile communication control method comprising the steps of:

reception, in the sector of the mobile access network (АN), the metric of the working characteristic is not less than for one neighboring sector; and

the implementation of cross-sectoral equivalence of resource use based on, at leastpartially, the metric of the performance of the neighboring (s) sector (s).

2. The method of claim 1, wherein the step of implementing a cross-sectoral equivalence of resource utilization includes at least one of:

obtaining a loan to avoid obstacles in the sector;

requesting one or more neighboring sectors to modify the transmission power on a subset of non-resource resources; or

modification of the power of sector transmission on a subset of wireless resources.

3. The method of claim 1, wherein the step of implementing a cross-sectoral equivalence of use of resources includes:

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obtaining a performance metric for the mobile AAN sector; and

setting the intensity with which the sector accumulates the resource usage message (Rome), based on, at least partially, a comparison of the metric of the sector's performance and metric of the performance of the neighboring sector (s).

4. The method of claim 3, further comprising the step of delivering a neighbor to the neighboring sector via a transit network based on, at least in part, the intensity of the accumulation of Rome or the comparison of the metrics of the performance.

5. The method of claim 3, further comprising the step of providing a terminal within the framework of a sector-driven entity, based on, at least in part, the intensity of the accumulation of Rome orcomparison of the metric of the performance characteristic.

6. The method of claim 3, further comprising the step of providing a minimum or maximum rate of delivery of Rome based on the accumulation rate of Rome or comparing the metric of the operational characteristics.

7. The method of claim 3, which further comprises the step of modulating the speed of sending messages to the intensity of the accumulation of message Rome unit weight.

8. The method of claim 3, further comprising the step of updating the intensity of accumulation of Rome on the basis of, at least in part, the modification of subsequent performance metrics for the sector or the adjacent sector.

9. A computer-readable medium that contains commands executed on it by the computer, to encourage at least one computer to execute the method in one step. 1-8, when executed.

10. A mobile communication device comprising:

means for reception, in the sector of mobile AN, metrics of the working characteristics for at least one neighboring sector; and

a means for implementing the cross-sectoral equivalence of use of resources based on, at least partially, the metrics of the performance of the neighboring sector (s).

11. The apparatus of claim 10, wherein the means for implementing a cross-sectoral equivalence of use of resources includes means for setting the sector for the intensity of accumulation of Rome for a sector based on the metric of the performance of the neighboring sector (s), or metric of the operational characteristics of this sector, or comparing such metrics.

12. The device of claim 11, further comprising means for determining the rate of sending messages to Rome, based on, at least in part, the accumulation intensity of Rome.

13. The device of claim 11, further comprising a means for updating the accumulation intensity of Rim, based, at least in part, on the changes in the comparison.

14. The apparatus of claim 13, further comprising a means for aggregating a metric of a working characteristic for a plurality of sectors, said updating means adapted to the intensity of accumulation of Rome based on, at least partially, the aggregated metric of the working characterization.

15. Device according to one of the claims. 10-14, which further includes a data acquisition unit, a control module, a storage device, and a processor.

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Computer layout A. Kryzhanivsky

State Service of Intellectual Property of Ukraine, st. Uritskogo, 45, Kyiv, SME, 03680, Ukraine

State Enterprise "Ukrainian Institute of Industrial Property", st. Glazunova, 1, Kyiv - 42, 01601

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