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Content for
TR 25.942
Word version: 16.0.0
1…
2…
8…
8
Results, implementation issues, and recommendations
9
Additional Coexistence studies
10
Antenna-to-Antenna Isolation
11
Modulation accuracy
12
UE active set size
13
Informative and general purpose material
14
Rationales for unwanted emission specifications
15
Link Level performances
$
Change history
8
Results, implementation issues, and recommendations
Word‑p. 55
8.1
FDD/FDD
8.1.1
ACIR for 21 dBm terminals
8.1.1.1
UL Speech (8 kbps): ACIR Intermediate macro to macro case
8.1.1.2
UL Speech (8 kbps): ACIR worst macro to macro case
Word‑p. 56
8.1.1.3
DL Speech (8 kbps): ACIR intermediate macro to macro case
8.1.1.4
DL Speech (8 Kbps): ACIR worst macro to macro case
Word‑p. 57
8.1.2
ACIR for 24 dBm terminals
Word‑p. 58
8.1.2.1
UL Speech (8 kbps): macro to macro
8.1.2.2
UL Data (144 kbps): macro to macro
Word‑p. 59
8.1.3
BTS Receiver Blocking
8.1.3.1
Simulation Results for 1 Km cell radius
8.1.3.2
Simulation Results for 5 Km cell radius
Word‑p. 61
8.1.3.3
Simulation Results for macro-micro simulation scenario with 1 and 2 Km interfering macro cell radius
Word‑p. 64
8.1.4
Transmit intermodulation for the UE
8.1.5
Rational on test parameters for UE adjacent channel selectivity
Word‑p. 65
8.1.5.1
Macro / Micro Scenario
8.1.5.2
OnOff Characteristic
Word‑p. 66
8.1.5.2.1
Macro-Micro (38dBm) with UE ACS OnOff Characteristic
Word‑p. 67
8.1.5.2.2
Macro- Single Micro (38dBm) with UE ACS OnOff Characteristic
8.1.5.3
UE ACS Mask Characteristic
Word‑p. 68
8.1.5.3.1
Macro-Micro with UE ACS Mask Characteristic
Word‑p. 69
8.2
FDD/TDD
8.2.1
Evaluation of the FDD/TDD interference
8.2.1.1
Simulation results
8.2.1.2
Summary and Conclusions
Word‑p. 73
8.2.2
Evaluation of FDD/TDD interference yielding relative capacity loss
8.2.2.1
Simulation results
8.3
TDD/TDD
8.3.1
Evaluation of the TDD/TDD interference
8.3.1.1
Simulation results
8.3.1.2
Summary and Conclusions
Word‑p. 76
8.3.2
Evaluation of FDD/TDD interference yielding relative capacity loss
8.3.2.1
Simulation results
8.3.3
ACIR
8.3.3.1
Synchronised operators
8.3.3.1.1
Speech (8 kbps): UL and DL macro to macro case
8.3.3.1.2
Comparison with the FDD/FDD coexistence analysis results
Word‑p. 78
8.3.3.2
Non synchronised operators
Word‑p. 79
8.4
Site engineering solutions for co-location of UTRA-FDD with UTRA-TDD
Word‑p. 80
8.4.1
General
8.4.2
Interference Mechanism
8.4.2.1
Unwanted UTRA-TDD emissions
8.4.2.2
Blocking of UTRA-FDD BS receiver
8.4.3
Site engineering solutions
Word‑p. 81
8.4.3.1
Antenna installation
8.4.3.2
RF filters
8.4.3.2.1
UTRA-TDD base station transmitter filter
8.4.3.2.2
UTRA-FDD base station receiver filter
8.4.4
Scenario Examples
Word‑p. 82
8.4.4.1
General
8.4.4.2
Scenario 1: Both TDD and FDD adjacent to 1920 MHz
8.4.4.3
Scenario 2a: TDD 1900-1915 MHz and FDD 1920-1940 MHz
8.4.4.4
Scenario 2b: TDD 1900-1920 MHz and FDD 1930-1980 MHz
Word‑p. 83
9
Additional Coexistence studies
Word‑p. 84
9.1
Simulation results on TDD local area BS and FDD wide area BS coexistence
9.1.1
Introduction
9.1.2
Simulator Description
Word‑p. 85
9.1.2.1
Simulation procedure overview
9.1.2.2
System Scenario
9.1.2.3
Propagation Model
Word‑p. 86
9.1.2.3.1
TDD BS to TDD UE
9.1.2.3.2
FDD UE to FDD BS
9.1.2.3.3
TDD UE to FDD BS
9.1.2.3.4
FDD UE to TDD UE
9.1.2.3.5
FDD UE to TDD BS
9.1.2.3.6
TDD BS to FDD BS
9.1.2.4
Power Control
Word‑p. 87
9.1.2.5
Interference Modelling Methodology
9.1.3
Capacity Calculations
9.1.3.1
Calculation of Single Operator Capacity for TDD and FDD
9.1.3.2
Calculation of Multi Operator Capacity
Word‑p. 88
9.1.3.3
Calculation of relative capacity loss
9.1.4
Simulation Parameters
Word‑p. 89
9.1.5
Simulation results
9.1.6
Conclusions
Word‑p. 90
10
Antenna-to-Antenna Isolation
10.1
Rationale for MCL value for co-located base stations
10.2
Rationale for MCL value for operation of base stations in the same geographic area
Word‑p. 91
10.2.1
Wide Area and Geneal Purpose Base Station
10.2.2
Local Area Base Station
10.3
Rationale for MCL values for co-sited base stations of different classes
Word‑p. 92
11
Modulation accuracy
Word‑p. 93
11.1
Downlink modulation accuracy
11.1.1
Simulation Condition and Definition
11.1.2
Simulation Results
11.1.3
Considerations
Word‑p. 94
11.1.4
Conclusion
11.2
Uplink Modulation Accuracy
Word‑p. 95
11.2.1
Value for Modulation Accuracy
11.2.2
References for minimum requirements
12
UE active set size
12.1
Introduction
12.2
Simulation assumptions
Word‑p. 96
12.3
Simulation results
12.3.1
Case 1: Three sectored, 65° antenna
Word‑p. 97
12.3.2
Case 2: Three sectored, 90° antenna
Word‑p. 98
12.3.3
Case 3: Three sectored, 65° antenna, bad planning
Word‑p. 99
12.3.4
Cases 4: Standard omni scenario
Word‑p. 100
12.3.4.1
Case 4a: WINDOW_ADD = 5 dB
12.3.4.2
Case 4b: WINDOW_ADD = 3 dB
Word‑p. 101
12.3.4.3
Case 4c: WINDOW_ADD = 7 dB
12.3.5
Case 5: Realistic map
Word‑p. 102
12.4
Conclusions
Word‑p. 103
13
Informative and general purpose material
13.1
CDMA definitions and equations
13.1.1
CDMA-related definitions
Word‑p. 104
13.1.2
CDMA equations
Word‑p. 105
13.1.2.1
BS Transmission Power
13.1.2.2
Rx Signal Strength for UE Not in Handoff (Static propagation conditions)
13.1.2.3
Rx Strength for UE Not in Handoff (Static propagation conditions)
Word‑p. 106
13.1.2.4
Rx Signal Strength for UE in two-way Handover
Word‑p. 107
13.2
Amplitude statistics for TM1, TM5 and TM6
14
Rationales for unwanted emission specifications
Word‑p. 109
14.1
Out of band Emissions
14.1.1
Adjacent Channel Leakage Ratio
14.1.2
Spectrum mask
14.1.2.1
Spectrum mask for 43 dBm base station output power per carrier
14.1.2.2
Spectrum masks for other base station output powers
Word‑p. 110
14.1.2.2.1
Output power > 43 dBm
14.1.2.2.2
39 dBm ≤ Output power ≤ 43 dBm
14.1.2.2.3
31 dBm ≤ Output power < 39 dBm
Word‑p. 111
14.1.2.2.4
Output Power < 31 dBm
14.1.2.2.5
Frequency range
14.2
Spurious Emissions
Word‑p. 112
14.2.1
Mandatory requirements
14.2.2
Regional requirements
14.2.2.1
Co-existence with adjacent services
14.2.2.2
Co-existence with other systems
14.2.3
Background of Spurious emission limits (Category B)
14.2.3.1
Old Category B spurious emission limits (until 2006-12)
Word‑p. 113
14.2.3.2
Implications for Evolved UTRA (Long Term Evolution in 3GPP)
Word‑p. 115
14.2.3.3
New Category B spurious emission limits (after 2006-12)
14.2.3.4
Co-existence studies performed for UTRA
Word‑p. 117
15
Link Level performances
Word‑p. 118
15.1
Propagation Models
15.1.1
Rationale for the choice of multipath fading Case 2
15.2
Simulation results for UE TDD performance test
Word‑p. 119
15.2.1
Downlink Simulation assumptions
15.2.1.1
General
15.2.1.2
Additional downlink parameters
15.2.2
Downlink Simulation results and discussion
Word‑p. 120
15.2.3
Uplink Simulation assumptions
Word‑p. 122
15.2.3.1
General
15.2.3.2
Additional uplink parameters
15.2.4
Uplink Simulation results and discussion
15.3
Simulation results for UE FDD performance test
Word‑p. 123
15.3.1
BTFD performance simulation
15.3.1.1
Introduction
15.3.1.2
Assumption
15.3.1.3
Simulation results
Word‑p. 125
15.3.1.4
Conclusion
Word‑p. 128
15.4
Simulation results for compressed mode
Word‑p. 129
15.4.1
Simulation assumptions for compressed mode by spreading factor reduction
15.4.2
Simulation results for compressed mode by spreading factor reduction
Word‑p. 130
15.4.2.1
Summary of performance results
15.4.2.2
Results
Word‑p. 131
$
Change history
Word‑p. 135