Abstract: A computer implemented method and system for determining component types and locations in a network design. The method includes automatically determining component types and locations according to a riser location as an entry point and antenna locations as a plurality of end points. The automatically determining component types and locations includes determining, by a processor of the computer, a first set of component types and locations according to a tree topology, according to the entry point and the plurality of end points, determining, by the processor, a second set of component types and locations according to a hybrid topology, according to the entry point and the plurality of end points, and determining, by the processor, one of the first set of component types and locations and the second set of component types and locations.

Abstract: A computer implemented method and system for determining component types and locations in a network design. The method includes automatically determining component types and locations according to a riser location as an entry point and antenna locations as a plurality of end points. The automatically determining component types and locations includes determining, by a processor of the computer, a first set of component types and locations according to a tree topology, according to the entry point and the plurality of end points, determining, by the processor, a second set of component types and locations according to a hybrid topology, according to the entry point and the plurality of end points, and determining, by the processor, one of the first set of component types and locations and the second set of component types and locations.

Abstract: A computer implemented method and system for communication network design, including: generating a plurality of receiver points; generating a target received signal strength for each receiver point of the plurality of receiver points; determining a predicted number of antennas based on a size of the communications network and a coverage area of an antenna; determining a location for each antenna of the predicted number of antennas; generating an estimated received signal strength for each receiver point of the plurality of receiver points, based upon the predicted number of antennas and the location of each antenna of the predicted number of antennas; comparing the estimated received signal strength for each receiver point with the target received signal strength for the receiver point; generating a revised predicted number of antennas based upon at least one of the comparisons of target received signal strength and estimated received signal strength.

Abstract: A system and method for wireless communication network deployment. The system includes a computer having a processor and memory and a plurality of interfaces including: a building data interface, a network design interface, and a project management interface. The building data interface is configured to receive and process, by the computer, building data, network data, network KPI's and financial data and generate, by the computer, a model of obstacles and their conglomeration within the environment of interest (digitized building model). The network design interface is configured to generate, a network design based upon the digitized building model and the network KPI's and to analyse, by the computer, interaction between the network model and the model of the obstacles and their conglomeration within the environment of interest. The project management interface, configured to schedule, by the computer, the projects, and automatically generates tasks and plans resources based upon the network design.

Abstract: A method and system for communication network design, the method including: generating, by a computer processor, a plurality of receiver points; generating a target received signal strength for each receiver point of the plurality of receiver points; determining a predicted number of antennas based on a size of the communications network and a coverage area of an antenna; determining a location for each antenna of the predicted number of antennas; generating an estimated received signal strength for each receiver point of the plurality of receiver points, based upon the predicted number of antennas and the location of each antenna of the predicted number of antennas; comparing the estimated received signal strength for each receiver point with the target received signal strength for the receiver point; generating a revised predicted number of antennas based upon at least one of the comparisons of target received signal strength and estimated received signal strength.

Abstract: A wireless communication system for providing a radio frequency (RF) link between an enclosed environment that is at least substantially shielded from RF signals, and the outside of the enclosed environment is disclosed. The wireless communication system includes at least one gateway antenna arranged at an entrance point of the enclosed environment. The gateway antenna radiates downlink RF signals into and receives uplink RF signals from, the enclosed environment, respectively. The system also includes at least one auxiliary repeater arranged within the enclosed environment, a donor antenna and a server antenna. Both the donor and the server antenna are coupled to the auxiliary repeater. The auxiliary repeater relays the downlink and the uplink RF signals using the donor antenna and the server antenna. A lift system including the wireless communication system is also disclosed.

Abstract: A wireless communication system for providing a radio frequency (RF) link between an enclosed environment that is at least substantially shielded from RF signals, and the outside of the enclosed environment is disclosed. The wireless communication system includes at least one gateway antenna arranged at an entrance point of the enclosed environment. The gateway antenna radiates downlink RF signals into and receives uplink RF signals from, the enclosed environment, respectively. The system also includes at least one auxiliary repeater arranged within the enclosed environment, a donor antenna and a server antenna. Both the donor and the server antenna are coupled to the auxiliary repeater. The auxiliary repeater relays the downlink and the uplink RF signals using the donor antenna and the server antenna. A lift system including the wireless communication system is also disclosed.

Abstract: A wireless communication system for providing a radio frequency (RF) link between an enclosed environment that is at least substantially shielded from RF signals, and the outside of the enclosed environment is disclosed. The wireless communication system includes at least one gateway antenna arranged at an entrance point of the enclosed environment. The gateway antenna radiates downlink RF signals into and receives uplink RF signals from, the enclosed environment, respectively. The system also includes at least one auxiliary repeater arranged within the enclosed environment, a donor antenna and a server antenna. Both the donor and the server antenna are coupled to the auxiliary repeater. The auxiliary repeater relays the downlink and the uplink RF signals using the donor antenna and the server antenna. A lift system including the wireless communication system is also disclosed.

Abstract: A wireless communication system for providing a radio frequency (RF) link between an enclosed environment that is at least substantially shielded from RF signals, and the outside of the enclosed environment is disclosed. The wireless communication system includes at least one gateway antenna arranged at an entrance point of the enclosed environment. The gateway antenna radiates downlink RF signals into and receives uplink RF signals from, the enclosed environment, respectively. The system also includes at least one auxiliary repeater arranged within the enclosed environment, a donor antenna and a server antenna. Both the donor and the server antenna are coupled to the auxiliary repeater. The auxiliary repeater relays the downlink and the uplink RF signals using the donor antenna and the server antenna. A lift system including the wireless communication system is also disclosed.

Abstract: A method to implement multiple talk-around communication links using the communication resources of one repeater. A system resource controller determines whether talk-around is possible for any two communication units intending to engage in a point-to-point communication link. Assignment of a talk-around repeater depends on the geographic locations of the two communication units, and a predetermined range criterion between them. In addition, the talk-around communication must not interfere with any existing talk-around communication already in the system. When talk-around communication is possible, an enabling communication grant is issued to the units, and the talk-around repeater's communication resources are assigned to support the link. Otherwise, a repeater for normal trunking is assigned.