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Content for
TR 36.785
Word version: 14.0.0
1…
2…
2
References
3
Definitions, symbols and abbreviations
4
Background
5
Deployment and co-existence studies
6
V2V transmitter characteristics
7
V2V receiver characteristics
8
Other specification impacts (if applicable)
9
Performance requirements
A
Link level simulation mapping model for V2V system
B
Reference Sensitivity requirements for V2V communication
$
Change History
2
References
3
Definitions, symbols and abbreviations
Word‑p. 7
3.1
Definitions
3.2
Abbreviations
4
Background
4.1
Justification
4.2
Objective
Word‑p. 8
4.3
V2V operating Scenarios
Word‑p. 9
4.3.1
General Description
4.3.2
Operation Aspects
5
Deployment and co-existence studies
Word‑p. 10
5.1
General
5.2
Operating bands
Word‑p. 11
5.2.1
Regulatory Background
5.2.1.1
ITU Region 1
5.2.1.1.1
TX requirements
5.2.1.1.2
RX Requirements
Word‑p. 12
5.2.1.2
ITU Region 2
Word‑p. 13
5.2.1.2.1
RF out put power
Word‑p. 14
5.2.1.3
ITU Region 3
5.2.1.3.1
Korea
5.2.1.4
Comparison
Word‑p. 15
5.2.2
V2V operating bands
5.3
Channel bandwidths
Word‑p. 16
5.3.1
Channel bandwidths per operating band for V2V service
5.4
Adjacent Channel Co-existence evaluations
5.4.1
Coexistence scenarios
5.4.2
Simulation Assumptions
Word‑p. 18
5.4.2.1
General for LTE system in 2GHz
5.4.2.2
General for DSRC/ITS system in 5.9GHz
Word‑p. 19
5.4.2.3
Detail parameters for V2V communications in both frequency bands
Word‑p. 20
5.4.2.4
PRR performance metrics
Word‑p. 21
5.4.3
Simulation Results
Word‑p. 22
5.4.3.1
V2V Communications in 2GHz
5.4.3.1.1
Case1: V2V UE-to-LTE BS
5.4.3.1.2
Case2: LTE BS-to-V2V UE
Word‑p. 24
5.4.3.2
V2V Communications in 5.9GHz
Word‑p. 26
5.4.3.2.1
Case3: V2V UE-to-DSRC UE
5.4.3.2.2
Case4: DSRC UE-to-V2V UE
Word‑p. 31
5.5
Additional scenarios
Word‑p. 35
5.6
Conclusion of V2V coexistence evaluations
Word‑p. 36
6
V2V transmitter characteristics
6.1
Maximum output power for V2V UE
6.2
UE maximum output power for modulation / channel bandwidth
6.2.1
Case 1: PSCCH and PSSCH on adjacent PRBs
Word‑p. 37
6.2.1.1
Summary of results
6.2.1.2
Results from Huawei
6.2.2
Case 2: PSCCH and PSSCH on non-adjacent PRBs
Word‑p. 38
6.3
UE maximum output power with additional requirements
6.3.1
Case 1: PSCCH and PSSCH on adjacent PRBs
6.3.1.1
Summary of results
6.3.1.2
Results from Huawei
6.3.2
Case 2: PSCCH and PSSCH on non-adjacent PRBs
Word‑p. 39
6.4
Configured transmitted power for V2V UE
6.5
UE Minimum output power for V2V UE
6.6
Transmit OFF power V2V UE
6.7
ON/OFF time mask for V2V UE
6.8
Power control for V2V UE
Word‑p. 40
6.8.1
Absolute power tolerance
6.9
Transmit signal quality for V2V UE
6.9.1
Frequency error
6.9.2
Transmit modulation quality
6.9.2.1
Error Vector Magnitude
6.9.2.2
Carrier leakage
6.9.2.3
In-band emissions
6.9.2.4
EVM equalizer spectrum flatness
Word‑p. 41
6.10
spectrum emission mask for V2V UE
6.10.1
Additional spectrum emission mask for V2V UE
6.11
ACLR requirements for V2V UE
Word‑p. 42
6.12
Spurious emission for V2V UE
6.13
Spurious emission band UE co-existence for V2V UE
7
V2V receiver characteristics
Word‑p. 43
7.1
Reference sensitivity power level
7.2
Maximum input level
Word‑p. 44
7.3
Adjacent Channel Selectivity (ACS)
7.4
Blocking characteristics
Word‑p. 45
7.4.1
In-band blocking
7.4.2
Out-of-band blocking
Word‑p. 46
7.4.3
Narrow band blocking
Word‑p. 47
7.5
Spurious response
7.6
Intermodulation characteristics
7.7
RX spurious emissions
Word‑p. 48
8
Other specification impacts (if applicable)
Word‑p. 49
9
Performance requirements
Word‑p. 50
A
Link level simulation mapping model for V2V system
Word‑p. 51
B
Reference Sensitivity requirements for V2V communication
Word‑p. 55
$
Change History
Word‑p. 57