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Content for
TR 37.977
Word version: 16.0.0
1…
2…
A…
A
eNodeB Emulator Downlink power verification
B
Measurement uncertainty budget
C
Other Environmental Test conditions for consideration
D
Environmental requirements
E
DUT orientation conditions
F
Calibration
G
Test Volume Validation
$
Change history
A
eNodeB Emulator Downlink power verification
Word‑p. 124
A.1
Introduction
A.2
Test prerequisites
A.3
Test Methodology
Word‑p. 125
B
Measurement uncertainty budget
Word‑p. 128
B.1
Measurement uncertainty budget for multiprobe method
B.2
Measurement uncertainty budget contributors for the RTS method
Word‑p. 131
B.3
Measurement uncertainty budget for reverberation chamber method
Word‑p. 133
B.4
Measurement uncertainty budget for decomposition method
Word‑p. 135
B.5
Measurement uncertainty budget for reverberation chamber plus channel emulator method
|R13|
Word‑p. 136
B.6
Fading channel emulator output uncertainty
|R13|
Word‑p. 138
B.7
External Amplifiers Uncertainty Terms
|R13|
B.7.1
Stability
B.7.2
Linearity
B.7.3
Noise Figure
B.7.4
Mismatch
B.7.5
Gain
Word‑p. 139
C
Other Environmental Test conditions for consideration
Word‑p. 140
C.1
Scope
C.2
3D isotropic Channel Models
C.3
Verification of Channel Model implementations
Word‑p. 142
C.3.1
Measurement instruments and setup
C.3.1.1
Vector Network Analyzer (VNA) setup
C.3.1.2
Spectrum Analyzer (SA) setup
Word‑p. 143
C.3.2
Validation measurements
Word‑p. 144
C.3.2.1
Power Delay Profile (PDP)
C.3.2.2
Doppler for 3D isotropic models
Word‑p. 146
C.3.2.3
Base Station antenna correlation for 3D isotropic models
Word‑p. 148
C.3.2.4
Rayleigh fading
Word‑p. 149
C.3.2.5
Isotropy for 3D isotropic models
Word‑p. 153
C.3.3
Reporting
Word‑p. 155
C.4
Channel model validation results
Word‑p. 156
C.4.1
Scope
C.4.2
Power Delay Profile (PDP) for 3D isotropic models
C.4.2.1
Setup used by harmonization test lab
|R14|
Word‑p. 158
C.4.3
Doppler for 3D isotropic models
Word‑p. 160
C.4.3.1
Setup used by harmonization test lab
|R14|
Word‑p. 161
C.4.4
Base Station antenna correlation for 3D isotropic models
Word‑p. 163
C.4.4.1
Setup used by harmonization test lab
|R14|
Word‑p. 164
C.4.5
Rayleigh fading for 3D isotropic models
Word‑p. 165
C.4.5.1
Setup used by harmonization test lab
|R14|
Word‑p. 166
C.4.6
Isotropy for 3D isotropic models
Word‑p. 167
C.4.6.1
Setup used by harmonization test lab
|R14|
Word‑p. 169
C.4.7
Summary for 3D Isotropic Models
Word‑p. 170
D
Environmental requirements
Word‑p. 171
D.1
Scope
D.2
Ambient temperature
D.3
Operating voltage
E
DUT orientation conditions
Word‑p. 172
E.1
Scope
E.2
Testing environment conditions
E.2.1
MPAC Positioning Guidelines
|R14|
Word‑p. 177
E.2.2
RTS Positioning Guidelines and test zone dimensions
|R14|
Word‑p. 181
F
Calibration
Word‑p. 182
F.1
Scope
F.2
Calibration Procedure - Anechoic chamber method with multiprobe configuration
F.2.1
Example Calibration Procedure
F.3
Calibration Procedure - Reverberation chamber method
Word‑p. 184
F.3.1
Measurement of S-parameters through the chamber for a complete stirring sequence
F.3.2
Calculation of the chamber reference transfer function
Word‑p. 185
F.3.3
Cable calibration
F.4
Calibration Procedure: RTS method
Word‑p. 186
F.5
Noise Floor Measurement Procedure - Anechoic chamber method with multiprobe configuration
|R14|
Word‑p. 187
G
Test Volume Validation
|R14|
Word‑p. 189
G.1
Test Volume Validation for the RC+CE Methodology
|R13|
G.1.1
Test Volume Validation Setup
G.1.1.1
Type 1 Reverberation Chamber - With Turntable
G.1.1.2
Type 2 Reverberation Chamber - Without Turntable
Word‑p. 191
G.1.2
Test Volume Validation Procedure
Word‑p. 192
G.1.2.1
Isotropy
Word‑p. 193
G.1.2.2
Chamber Statistical Ripple and Repeatability
$
Change history
Word‑p. 194