Key Scenarios and implications for WINNER II

WINNER II D6.11.2 v1.0applicationsVoice (CBR)VoIP (ABR)SMS (ABR)MMS (UBR)Video Interactivemobile TV (CBR)Telemedicine (VBR)Streamed video(sports and events)(VBR)IP Web radio (VBR)Video streaming(ABR)M-commerce (ABR)M-banking (ABR)E-mail (UBR)LAIndoor small(residential)/dense urbanIndoor small(office)/dense urbanIndoor small(residential)/suburban0 – 5km/h5 – 70km/h70 –100km/h100 –250km/h>250km/h90 10 0 0 090 10 0 0 085 15 0 0 0MA Typical urban 10 70 20 0 0WALASuburban 30 40 20 10 0Rural 15 45 20 15 5Indoor small(residential)/dense urbanIndoor small(office)/dense urbanIndoor small(residential)/suburban95 5 0 0 095 5 0 0 090 10 0 0 0MA Typical urban 10 70 20 0 0WASuburban 35 40 25 0 0Rural 10 40 35 10 5Note: CBR – Constant bit rate, VBR – Variable bit rate, ABR – Available bit rate, UBR – Unspecified bitrate.4.1.5 Mobility modelsThe purpose of mobility models is to describe typical terminal movement so that performance analysiscan be made. Many link and system-level simulators require the knowledge of terminal position in eachsimulated time step so that the effectiveness of studied techniques such as link adaptation, transmissiondiversity and beam forming may be evaluated.Next mobility models are presented for office environment, outdoor to indoor environment, hotspot andvehicular environment.4.1.5.1 Indoor small (office) environment mobility modelOffice environments are characterised by a “boxy” topology, where office rooms are interconnected bycorridors. Users will spend most of the time stationary at their desk and when in movement they will goto a particular destination. Destinations can be chosen randomly, using a uniform distribution. Two casesmay be considered, concerning the nature of movements: both source and destination are an office room(case 1); either source or destination is a corridor position (cases 2 and 3).Page 20 (41)