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Content for
TR 38.810
Word version: 16.6.1
1…
2…
A…
C…
C
UE coordinate system
D
Quality of the quiet zone validation
E
Rationale behind IFF method 1
F
Rationale behind NFTF method
G
Measurement Grids
H
SINR control for Scenario 3 RRM Test with two Angles of Arrival (2 AoAs)
$
Change history
C
UE coordinate system
Word‑p. 97
C.1
Reference coordinate system
C.2
Test conditions and angle definitions
Word‑p. 98
C.3
DUT positioning guidelines
Word‑p. 102
D
Quality of the quiet zone validation
Word‑p. 104
D.1
General
D.2
Procedure to characterize the quality of the quiet zone for the permitted far field methods
D.2.1
Equipment used
Word‑p. 105
D.2.2
Test frequencies
Word‑p. 106
D.2.3
Reference measurements
D.2.4
Size of the quiet zone
D.2.5
Minimum range length
Word‑p. 107
D.2.6
Reference AUT positions
D.2.6.1
Distributed-axes system
D.2.6.2
Combined-axes system
Word‑p. 108
D.2.7
Reference AUT orientations
Word‑p. 109
D.2.7.1
Distributed-axes system
D.2.7.2
Combined-axes system
Word‑p. 110
D.2.8
Quality of quiet zone measurement uncertainty calculations for TRP
Word‑p. 112
D.2.9
Quality of quiet zone measurement uncertainty for EIRP/EIS
E
Rationale behind IFF method 1
Word‑p. 113
E.1
IFF method 1 - working principle
E.2
IFF method 1 - a far field system
Word‑p. 114
E.2.1
Quiet zone
E.2.2
Implementation Requirements
Word‑p. 115
E.2.2.1
Reflector(s) Type
E.2.2.1.1
Serrated Edge
Word‑p. 116
E.2.2.1.2
Rolled edge
E.2.2.2
Feed Antenna location
E.3
IFF method 1 - reciprocity
E.4
IFF method 1 - DUT offset from the QZ centre
Word‑p. 120
E.5
IFF method 1 - operating frequency range
Word‑p. 122
E.6
IFF method 1 - positioning system
Word‑p. 123
E.7
IFF method 1 - link antennas
F
Rationale behind NFTF method
Word‑p. 124
F.1
NFTF method - working principle
F.2
NFTF - Spherical Scan
Word‑p. 125
F.3
NFTF - Implementation for Self-Transmitting DUTs
F.3.1
Phase Recovery Technique
F.3.2
Obtaining EIRP and TRP
F.4
NFTF - Measurement Uncertainty due to Phase Variation
Word‑p. 126
G
Measurement Grids
Word‑p. 127
G.1
TRP Measurement Grids
G.1.1
Assumptions
G.1.1a
Grid Types
Word‑p. 130
G.1.2
TRP Integration for Constant Step Size Grid Type
Word‑p. 132
G.1.2.1
TRP Integration using Weights
G.1.2.2
TRP Surface Integral using the Jacobian Matrix
Word‑p. 134
G.1.3
TRP Integration for Constant Density Grid Types
Word‑p. 137
G.1.4
Simulation Results
G.1.5
Interpolation at or near the Pole
Word‑p. 139
G.2
Beam Peak Search Measurement Grids
Word‑p. 142
G.2.1
Assumptions
G.2.2
Grid Types
Word‑p. 143
G.2.3
Simulation results
G.2.4
Coarse and fine measurement grids
Word‑p. 147
G.3
Spherical coverage Measurement Grids
Word‑p. 149
G.3.1
Assumptions
G.3.2
Grid Types
Word‑p. 150
G.3.3
Simulation results
G.3.3.1
EIRP spherical coverage
G.3.3.1.1
Analyses with 8x2 Antenna Array with Beam Peak on the Measurement Grid
Word‑p. 151
G.3.3.1.2
Analyses with 8x2 Antenna Array with Beam Peak oriented completely randomly
Word‑p. 154
G.3.3.1.3
Conclusions
Word‑p. 156
G.3.3.2
EIS spherical coverage
Word‑p. 157
G.3.3.2.1
Analyses with 8x2 Antenna Array with Beam Peak on the Measurement Grid
Word‑p. 158
G.3.3.2.2
Analyses with 8x2 Antenna Array with Beam Peak oriented completely randomly
Word‑p. 162
G.3.3.2.3
Conclusions
Word‑p. 165
G.3.4
Clarification of Min. EIRP at fixed CDF value
G.4
Combined Beam Peak and Spherical Coverage Analyses
Word‑p. 167
H
SINR control for Scenario 3 RRM Test with two Angles of Arrival (2 AoAs)
Word‑p. 168
H.1
Case 1: TDM transmissions from 2 probes
H.2
Case 2: Simultaneous transmission of signals from 2 probes
H.2.1
Mode 1
H.2.2
Mode 2
$
Change history
Word‑p. 170