, no CAC, constant file size of12 kbyte, lub link = 1 E1 line Improvement for Pareto file size distribution with RTTest ftp scenario, RAB 128 kbps, no CAC, constant file size of 12 kbyte, lub link = 1 E1 line File transfer delay (left), blocking ratio (right): ftp scenario, RAB 128 kbps, CAC reserved rate = 96 kbps, constant file size of 12 kbyte, lub link =1 E1 line. 144 File transfer delay (left), blocking ratio (right): ftp scenario, RAB 128 kbps, CAC reserved rate = 96 kbps, constant file size of 50 kbyte, lub link =1 E1 line. 145 Average application delay over the load for multiple RABs: ftp scenario, no CAC, constant file size (12 kbyte) The impact of different distributions of various RAB types: ftp scenario, no CAC, constant file size (50 kbyte) Average application delay over the load for multiple RABs with different RAB distributions: web scenario, no CAC, constant page size (12 kbyte) Average application delay over the load for BRA: web scenario, no CAC, page size =12 kbyte, lub link = 1 E1 line List of Figures Average application delay over the load for web mixed with voice: RAB 128 kbps (for web traffic), no CAC, page size =50 kbyte, lub link = 1 E1 line lub link dimensioning with processor sharing (PS) models Bandwidth partitioning for elastic traffic & circuit-switched traffic lub Dimensioning: web scenario, no CAC, RAB 128 kbps, constant page size (50 kbyte), f f=1.25 Normalized capacity and link utilization Capacity VS. traffic load (with different delay factors): web scenario, constant page size of 12kbyte, RAB 128 kbps, no CAC Capacity VS. traffic load (with different peak rates): web scenario, constant page size of 12kbyte, target delay factor f = 1.5 for all RABs, no CAC Capacity VS. traffic load (different traffic mixes of web and voice traffic) for web traffic: RAB 128kbps, no CAC, page size =50kbyte, delay factor f=1.25 Delay in the UTRAN lub System Models (AAL2 packet level) Squared CoV of packet interarrival time for RT voice traffic Squared CoV of packet interarrival time for NRT traffic