Sprint Communications Comapny L.p.

Paul Jacob Sterchi

Sreekar Marupaduga

Maneesh Gauba

Stephen R Bales

Matt Masters

Kaushik Goswami

Various methods and systems for dynamically optimizing the azimuth and tilt settings of antenna systems based on analyzing network parameters are provided. Analyzing network parameters may be by way of an automated feedback mechanism, where measurements for network parameters, including, for example, traffic patterns, radio channel conditions, capacity offload requirements and coverage requirements are received for one or more network cells. The network parameter measurements are associated with an antenna system of the one or more network cells. The network parameter measurements correspond to one or more network parameters each having a threshold level for optimal operation of the network. A determination is made that a network parameter measurement for at least one of the one or more network parameters meets a corresponding threshold level. An adjustment for the azimuth setting and a tilt setting of the antenna system is determined such that the antenna system is adjusted.

Dynamic optimization of antenna systems

Examples disclosed herein provide systems, methods, and software for operating a wireless base station with dynamic pilot signals. In one example, a method of operating a wireless base station includes transmitting a first pilot signal at a first pilot frequency centered in a frequency band, wirelessly receiving first user data using a first filter configuration to pass energy within the frequency band, and detecting a network condition. The method further includes, in response to detecting the network condition, terminating transmission of the first pilot signal, and transmitting second and third pilot signals at second and third frequencies. The method also includes wirelessly receiving second user data using a second filter configuration, and wirelessly receiving third user data using a third filter configuration.

Dynamically transmitting pilot signals from a base station

An antenna monitoring system in one example embodiment includes a plurality of analog-to-digital (A/D) converters configured to receive a plurality of tapped antenna signals and generate a plurality of digitized antenna signals, and an antenna monitor coupled to the plurality of A/D converters and coupled to a Base Transceiver Station (BTS) of the distributed antenna system, with the antenna monitor comprising a storage system configured to store an antenna monitor routine and a plurality of per-antenna information, a communication transceiver configured to transfer the plurality of per-antenna information, and a processing system configured to receive the plurality of digitized antenna signals from the plurality of A/D converters, reverse-process the plurality of digitized antenna signals to generate the plurality of per-antenna information, and feed the plurality of per-antenna information back to the BTS, with the BTS using the plurality of per-antenna information to monitor the plurality of antenna sub-systems.

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Lawrenceburg, IN, United States of America

Paul Jacob Sterchi