A 
system and method is disclosed for increasing the efficiency of a 
cellular communication network, reduce ongoing operating costs and increase revenue. According to one aspect, a method is disclosed for increasing the efficiency of a 
cellular communication network whereby network capacity in the 
radio access network (RAN) and 
baseband processing for 
wireless connections are dynamically adjusted to automatically provision sufficient bandwidth and 
baseband processing capacity in response to changes in the network. The method is further extended by implementing policy management which allows 
wireless carriers to develop and implement network based policies to automatically increase or decrease the amount of 
processing resources and network bandwidth required from any 
cell site, hub or mobile switching office. According to another aspect, network efficiency is enhanced by utilizing a novel 
cellular network infrastructure. RF signals from 
cell site antennas of various technology types are demodulated, digital bit information is extracted from the RF signals, processed, and groomed into 
Gigabit Ethernet / 
Resilient Packet Ring (GigE / RPR) or 
Ethernet over 
copper traffic flows using specific 
Quality of Service (QoS) priorities. The GigE / RPR traffic flows are routed to hub sites or mobile switching offices, at which point the packetized information is extracted and converted to RF signals that are equivalent to the signals that were received at the antenna. The RF signals are sent over 
coaxial cable to a network hub including a 
pool of Base 
Transceiver Stations (BTSs) (or Node Bs). The hub is coupled to one or more mobile switching offices via a second 
fiber optic ring.