Policy on Intellectual Property Right (IPR)
Annex 1
�1���� Introduction
�2���� Physical operating
environments and definition of cell types
�3���� Path categories
������� 3.1���� Definition of
propagation situations
����������������� 3.1.1���� Propagation
over rooftops, non-line-of-sight (NLoS)
����������������� 3.1.2���� Propagation
along street canyons, NLoS
����������������� 3.1.3���� Line-of-sight
(LoS) paths
������� 3.2���� Data
requirements
�4���� Path loss models
������� 4.1���� LoS situations
within street canyons
UHF propagation
SHF propagation up to 15 GHz
Millimetre-wave propagation
������� 4.2����
Models for NLoS situations
Propagation for urban area
Propagation for suburban area
Millimetre-wave propagation
����������������� 4.2.1���
�Propagation over roof-tops for urban area
Calculation of L1msd for l > ds
Calculation of L2msd� for l < ds
����������������� 4.2.2����
Propagation over roof-tops for suburban area
����������������� 4.2.3����
Propagation within street canyons for frequency range from 800 to
2 000 MHz
����������������� 4.2.4����
Propagation within street canyons for frequency range from 2 to 16 GHz
������� 4.3����
Propagation between terminals located below roof-top height at UHF
������� 4.4���� Default
parameters for site-general calculations
������� 4.5���� Influence of
vegetation
�5���� Building entry loss
�6���� Multipath models
������� 6.1���� Multipath
models for street canyon environments
����������������� 6.1.1����
Omnidirectional antenna case
����������������� 6.1.2���� Directional
antenna case
������� 6.2���� Multipath
models for over-rooftops propagation environments
�7���� Number of signal
components
�8���� Polarization
characteristics
�9���� Characteristics of
direction of arrival
10����
Fading characteristics
11����
Propagation data and prediction methods for the path morphology approach
������ 11.1����
Classification of path morphology
������ 11.2����
Statistical modelling method
������ 11.3����
Path loss model
������ 11.4����
Delay spread model
������ 11.5����
Angular spread model