an Eb/NO target -0.5 dB Handover modelling Handover threshold for candidate set Active set Choice of cells in the active step Random Combining Selection Maximum ratio combining Noise parameters Noise figure Receiving bandwidth 4.096 MHz proposed 4.096 MHz proposed Noise power -103 dBm proposed -99 dBm proposed TX power Maximum BTS power 43 dBm macro 33 dBm micro Common channel power 30 dBm macro 20 dBm micro Maximum TX power speech 21 dBm 30 dBm macro 20 dBm micro Maximum TX power data 21 dBm 30dBm macro 20dBm micro Power control range 65 dB 25 dB Handling of downlink maximum TX power Admission control Not included Not included User distribution Random and uniform across the network Interference reduction Non-orthogonality factor macro cell Non-orthogonality micro cell Common channel orthogonality Orthogonal Deployment scenario Macro cell Hexagonal with BTS in the middle of the cell Micro cell Manhattan (from 30.03) BTS type Omnidirectional The UMTS Network and Radio Access Technology Cell radius macro 577 macro Inter-site single operator 1000 macro Cell radius micro Block size = 75 m, road 15 m Inter-site single micro Intersite between LoS = 180 m Intersite shifting macro 577 and 577/2 m No. of macro cells > 19 with wrap around technique) Intersite shifting macro-micro See scenario Number of cells per each operator See scenario Wrap around technique Should be used Simulated services Bit-rate speech 8 kbps 8 kbps Activity factor speech Multi-path environment macro Vehicular macro Vehicular macro Eb/NO target 6.1 dB 7.9 dB Multi-path environment macro Outdoor micro Outdoor micro Eb/NO target 3.3 dB 6.1 dB Data rate 144 kbps 144 kbps Activity factor speech 100 % 100 % Multi-path environment macro Vehicular macro Vehicular macro Eb/NO target 3.1 dB 2.5 dB with DL TX or RX diversity, 4.5 dB no diver- Multi-path environment macro Outdoor micro Outdoor micro Eb/NO target 2.4 dB 1.9 dB with DL TX or RX 5.5.7 Example Results FDD/FDD Here we illustrate example results primarily for the FDD to FDD mode. In [5] we can see a