Abstract: Embodiments of the present disclosure relate to mitigating at least one coverage hole [108] from a coverage area served by at least one serving cell [102A to 102L]. In a preferred embodiment, a method is disclosed comprising: identifying at least one of at least one first optimum cell and at least one second optimum cell from the at least one serving cell [102A to 102L] based on the coverage hole information based on least one first cell parameter and at least one second cell parameter respectively; determining a final set of target cells comprising at least one final cell and mitigating the at least one coverage hole [108] by modifying the transmission parameter of the at least one final cell based on at least one of the coverage hole information, the at least one first cell parameter and the at least one second cell parameter.

Abstract: Embodiments of the present invention relate to systems and methods for automatic identification and optimization of an overshooting cell (102) by receiving a parameter associated with at least one cell having a timing advance with a permissive range of operative user equipment (UE), wherein the parameter comprises a permissive void count threshold; identifying the timing advance as one of an active timing with at least one operative UE and a passive timing advance without at least one UE; determining at least one of a UE count of the operative UE in the active timing advance and a void count in the passive timing advance; identifying the at least one cell as the overshooting cell (102) by comparing at least one of: the UE count with the permissive range of operative UE and the void count with the permissive void count threshold; and modifying at least one transmission parameter of the overshooting cell (102).

Abstract: Embodiments of the present invention relate to a network entity assisted system and method for detection of Honeypot access point. More particularly, the embodiments may disclose a method for authenticating the access point based on a request from a user equipment; the method comprising: comparing an AP identifier with a pre-configured list of AP identifiers to generate one of a positive response and a negative response; transmitting one of a denial response and a verification request; receiving one of a positive verification response and a negative verification response from the authorized AP; transmitting one of a positive authentication response and negative authentication response to maintain the connection with the authorized AP and release the connection with Honeypot AP, respectively.

Abstract: Selective non-distribution of received unlicensed spectrum communications by a remote unit(s) into a distributed communications system (DCS) is provided. In one aspect, the DCS is configured to receive communications signals in unlicensed spectrum from a source transceiver(s) for communications services. The DCS is configured to distribute the received communications signals in unlicensed spectrum to one or more remote units forming respective remote communications coverage areas. To reduce or avoid signal interference when communication signals in unlicensed spectrum are transmitted into the DCS that is also being used for transmissions by a remote transceiver to a remote unit at the same time, received communications signals by the remote units are monitored for unlicensed spectrum. The remote unit is configured to disable or disconnect the reception and/or transmission of the communications signals in the unlicensed spectrum based on the communication signal activity in the unlicensed spectrum.

Abstract: Embodiments of the disclosure relate to downlink (DL) and uplink (UL) communication path switching in a time-division duplex (TDD) distributed antenna system (DAS). In this regard, a communications control circuit is provided. The communications control circuit is configured to synchronize to DL periods and UL periods of TDD communication signal to switch a TDD communication signal between a DL communication path and a UL communication path in a DAS accordingly. The communication control circuit is configured to detect the DL periods and/or the UL periods in the TDD communication signal by sensing a power increase associated with the TDD communication signal in the DL communication path. In this manner, the TDD communication signals can be synchronously directed to the DL communication path and UL communication path without destructing and/or decoding the TDD communication signals.

Abstract: Embodiments of the present invention relate to a system and method for determining a capacity utilisation of at least one of a cluster [104] and a base station [102]. More particularly, the embodiments may disclose a method for determining the capacity utilisation by receiving at least one message from at least one user equipment [110], wherein the at least one user equipment [110] belongs to the at least one cluster [104] having at least one cluster identifier and the at least one message includes uplink data and downlink data of the at least one user equipment [110]; generating a capacity utilisation list for said at least one cluster [104]; updating the capacity utilisation list with the uplink data and the downlink data; and determining a capacity utilisation for at least one of the cluster [104] and the base station [102] based on the uplink data and the downlink data.

Abstract: Selective non-distribution of received unlicensed spectrum communications by a remote unit(s) into a distributed communications system (DCS) is provided. In one aspect, the DCS is configured to receive communications signals in unlicensed spectrum from a source transceiver(s) for communications services. The DCS is configured to distribute the received communications signals in unlicensed spectrum to one or more remote units forming respective remote communications coverage areas. To reduce or avoid signal interference when communication signals in unlicensed spectrum are transmitted into the DCS that is also being used for transmissions by a remote transceiver to a remote unit at the same time, received communications signals by the remote units are monitored for unlicensed spectrum. The remote unit is configured to disable or disconnect the reception and/or transmission of the communications signals in the unlicensed spectrum based on the communication signal activity in the unlicensed spectrum.

Abstract: Selective non-distribution of received unlicensed spectrum communications by a remote unit(s) into a distributed communications system (DCS) is provided. In one aspect, the DCS is configured to receive communications signals in unlicensed spectrum from a source transceiver(s) for communications services. The DCS is configured to distribute the received communications signals in unlicensed spectrum to one or more remote units forming respective remote communications coverage areas. To reduce or avoid signal interference when communication signals in unlicensed spectrum are transmitted into the DCS that is also being used for transmissions by a remote transceiver to a remote unit at the same time, received communications signals by the remote units are monitored for unlicensed spectrum. The remote unit is configured to disable or disconnect the reception and/or transmission of the communications signals in the unlicensed spectrum based on the communication signal activity in the unlicensed spectrum.

Abstract: Embodiments of the present invention relate to systems and methods for automatic identification and optimization of an overshooting cell (102) by receiving a parameter associated with at least one cell having a timing advance with a permissive range of operative user equipment (UE), wherein the parameter comprises a permissive void count threshold; identifying the timing advance as one of an active timing with at least one operative UE and a passive timing advance without at least one UE; determining at least one of a UE count of the operative UE in the active timing advance and a void count in the passive timing advance; identifying the at least one cell as the overshooting cell (102) by comparing at least one of: the UE count with the permissive range of operative UE and the void count with the permissive void count threshold; and modifying at least one transmission parameter of the overshooting cell (102).

Abstract: Embodiments of the present disclosure relate to mitigating at least one coverage hole [108] from a coverage area served by at least one serving cell [102A to 102L]. In a preferred embodiment, a method is disclosed comprising: identifying at least one of at least one first optimum cell and at least one second optimum cell from the at least one serving cell [102A to 102L] based on the coverage hole information based on least one first cell parameter and at least one second cell parameter respectively; determining a final set of target cells comprising at least one fmal cell and mitigating the at least one coverage hole [108] by modifying the transmission parameter of the at least one fmal cell based on at least one of the coverage hole information, the at least one first cell parameter and the at least one second cell parameter.

Abstract: Direct communicative coupling of a base station(s) to a remote unit for exchanging communications services with a distributed communications system (DCS) is disclosed. For example, the remote unit may include a remote antenna unit that is provided in a distributed antenna system (DAS) as one type of DCS. In this manner, the remote unit can facilitate distribution of communications services from a base station into the DCS at locations other than at a centralized location in the DCS, such as at a central unit or head-end equipment. Various DCS configurations are possible that include a remote unit supporting the direct communicatively coupling to a base station(s) for distributing communications services in a DCS.

Abstract: Embodiments of the disclosure relate to determining location of client devices in a distributed antenna system (DAS) based on detecting uplink received power. In this regard, a client device location system is provided in the DAS to configure each remote unit in the DAS to generate a power-regulated UL communications signal based on an assigned power pattern. If a respective power pattern of a reference signal(s) uniquely identifying a client device corresponds to the assigned power pattern of the remote unit that generates the power-regulated UL communications signal, the client device location system reports the location of the remote unit as the location of the client device in the DAS. Hence, it is possible to locate the client device based on the location of the remote unit, thus providing the location of the client device with higher degree of accuracy.

Abstract: Embodiments of the present invention relate to a system and method for determining a capacity utilisation of at least one of a cluster [104] and a base station [102]. More particularly, the embodiments may disclose a method for determining the capacity utilisation by receiving at least one message from at least one user equipment [110], wherein the at least one user equipment [110] belongs to the at least one cluster [104] having at least one cluster identifier and the at least one message includes uplink data and downlink data of the at least one user equipment [110]; generating a capacity utilisation list for said at least one cluster [104]; updating the capacity utilisation list with the uplink data and the downlink data; and determining a capacity utilisation for at least one of the cluster [104] and the base station [102] based on the uplink data and the downlink data.

Abstract: Evaluating performance of remote units on a per remote unit basis in a distributed antenna system (DAS) is disclosed. From a cellular network perspective, because each remote unit in a DAS is connected to the same cell transceiver of a base station, the individual remote coverage areas in the DAS are treated as one coverage area with the cell of the connected base station. Thus, in certain aspects provided herein, at least one performance indicator regarding the remote units in the DAS is determined on a per remote unit basis in the DAS, since each remote unit has its own remote coverage area that can have distinct and varying performance from other coverage areas in the DAS. The performance indicator can be communicated to a network or other system that is configured to analyze the performance related information and/or determine optimizations for the DAS to improve quality of service (QoS).

Abstract: Embodiments of the disclosure relate to determining location of client devices in a distributed antenna system (DAS) based on detecting uplink received power. In this regard, a client device location system is provided in the DAS to configure each remote unit in the DAS to generate a power-regulated UL communications signal based on an assigned power pattern. If a respective power pattern of a reference signal(s) uniquely identifying a client device corresponds to the assigned power pattern of the remote unit that generates the power-regulated UL communications signal, the client device location system reports the location of the remote unit as the location of the client device in the DAS. Hence, it is possible to locate the client device based on the location of the remote unit, thus providing the location of the client device with higher degree of accuracy.

Abstract: Direct communicative coupling of a base station(s) to a remote unit for exchanging communications services with a distributed communications system (DCS) is disclosed. For example, the remote unit may include a remote antenna unit that is provided in a distributed antenna system (DAS) as one type of DCS. In this manner, the remote unit can facilitate distribution of communications services from a base station into the DCS at locations other than at a centralized location in the DCS, such as at a central unit or head-end equipment. Various DCS configurations are possible that include a remote unit supporting the direct communicatively coupling to a base station(s) for distributing communications services in a DCS.

Abstract: Direct communicative coupling of a base station(s) to a remote unit for exchanging communications services with a distributed communications system (DCS) is disclosed. For example, the remote unit may include a remote antenna unit that is provided in a distributed antenna system (DAS) as one type of DCS. In this manner, the remote unit can facilitate distribution of communications services from a base station into the DCS at locations other than at a centralized location in the DCS, such as at a central unit or head-end equipment. Various DCS configurations are possible that include a remote unit supporting the direct communicatively coupling to a base station(s) for distributing communications services in a DCS.

Abstract: Embodiments of the present invention relate to system and method for one of authenticating an authorized AP [106A] and barring a honeypot AP [106C]. More particularly, the embodiments may disclose a method for authenticating the access point based on a request from a user equipment [104A]; the method comprising steps of: comparing an AP identifier with a pre-configured list of AP identifiers to generate one of a positive response and a negative response; transmitting one of a denial response and a verification request; receiving one of a positive verification response and a negative verification response from the authorized AP [106A]; transmitting one of a positive authentication response to maintain the connection with the authorized AP [106A] in response to the positive verification response and a negative authentication response to release the connection with the honeypot AP [106C] in response to the negative verification response received from the authorized AP [106A].

Abstract: Selective non-distribution of received unlicensed spectrum communications by a remote unit(s) into a distributed communications system (DCS) is provided. In one aspect, the DCS is configured to receive communications signals in unlicensed spectrum from a source transceiver(s) for communications services. The DCS is configured to distribute the received communications signals in unlicensed spectrum to one or more remote units forming respective remote communications coverage areas. To reduce or avoid signal interference when communication signals in unlicensed spectrum are transmitted into the DCS that is also being used for transmissions by a remote transceiver to a remote unit at the same time, received communications signals by the remote units are monitored for unlicensed spectrum. The remote unit is configured to disable or disconnect the reception and/or transmission of the communications signals in the unlicensed spectrum based on the communication signal activity in the unlicensed spectrum.

Abstract: Embodiments of the disclosure relate to determining location of client devices in a distributed antenna system (DAS) based on detecting uplink received power. In this regard, a client device location system is provided in the DAS to configure each remote unit in the DAS to generate a power-regulated UL communications signal based on an assigned power pattern. If a respective power pattern of a reference signal(s) uniquely identifying a client device corresponds to the assigned power pattern of the remote unit that generates the power-regulated UL communications signal, the client device location system reports the location of the remote unit as the location of the client device in the DAS. Hence, it is possible to locate the client device based on the location of the remote unit, thus providing the location of the client device with higher degree of accuracy.