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Content for
TR 45.050
Word version: 18.0.0
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ZD
ER-GSM band introduction
ZD.1
Introduction
ZD.2
Generalities on Working assumption and methodology
ZD.3
Victim receiver performance for lowest frequency offset of ER-GSM interferer
ZD.4
Victim receiver performance in the ER-GSM frequency range
ZD.5
Specified requirement based on co-existence analysis
ZD.6
References
ZE
Extended TSC Sets
ZE.1
Extended TSC Sets Design
ZE.2
Performance framework for design of Extended TSC Sets
ZE.3
Delay statistics for design of Extended TSC Sets
ZE.4
NewToN - Performance evaluation
ZD
ER-GSM band introduction
p. 324
ZD.1
Introduction
p. 324
ZD.2
Generalities on Working assumption and methodology
p. 324
ZD.2.1
Evaluation on impacted requirements
p. 324
ZD.2.2
Assumptions
p. 325
ZD.2.2.1
RF performances
p. 325
ZD.2.2.2
Blocker rejection by victim public base station
p. 325
ZD.2.2.3
Blocking and Intermodulation reminders
p. 326
ZD.2.2.4
Desensitization computing method
p. 326
ZD.2.2.5
Coordinated and uncoordinated deployment
p. 327
ZD.2.2.6
Exception to blocking requirement for ER-GSM mobiles
p. 327
ZD.3
Victim receiver performance for lowest frequency offset of ER-GSM interferer
p. 327
ZD.3.1
GSM BTS as victim receiver
p. 327
ZD.3.2
UTRA/E-UTRA BS as victim receiver
p. 328
ZD.4
Victim receiver performance in the ER-GSM frequency range
p. 328
ZD.4.1
GSM BTS as victim receiver
p. 329
ZD.4.2
UTRA/E-UTRA BS as victim receiver
p. 329
ZD.5
Specified requirement based on co-existence analysis
p. 329
ZD.5.1
Uncoordinated deployment
p. 330
ZD.5.2
Coordinated deployment
p. 330
ZD.6
References
p. 330
ZE
Extended TSC Sets
p. 331
ZE.1
Extended TSC Sets Design
p. 331
ZE.1.1
Introduction
p. 331
ZE.1.2
Training Sequence Design
p. 331
ZE.1.2.1
Initial Search
p. 331
ZE.1.2.2
Building the Cost Function
p. 332
ZE.1.2.2.1
Auto Correlation Cost
p. 332
ZE.1.2.2.2
Cross Correlation Cost
p. 333
ZE.1.2.2.2.1
Basic Principle
p. 333
ZE.1.2.2.2.2
Used Model
p. 334
ZE.1.2.3
Performing the search
p. 337
ZE.1.3
Proposed Training Sequence Code Set
p. 337
ZE.1.4
Equivalence of rotational approaches
p. 338
ZE.2
Performance framework for design of Extended TSC Sets
p. 340
ZE.2.1
Working Assumptions for performance framework
p. 340
ZE.3
Delay statistics for design of Extended TSC Sets
p. 342
ZE.3.1
Background
p. 342
ZE.3.2
Simulations
p. 343
ZE.3.2.1
Simulation assumptions
p. 343
ZE.3.2.2
Non-ideal network synchronization
p. 343
ZE.3.2.3
Collection of results
p. 344
ZE.3.2.4
Delay distribution
p. 344
ZE.4
NewToN - Performance evaluation
p. 344
ZE.4.1
Introduction
p. 345
ZE.4.2
Impact of co-TSC interference
p. 345
ZE.4.2.1
Introduction
p. 345
ZE.4.2.2
System model of co-TSC interference
p. 346
ZE.4.2.2.1
Network configuration
p. 346
ZE.4.2.2.2
Interferer strength
p. 347
ZE.4.2.2.3
Co-TSC probability
p. 348
ZE.4.2.3
Link level simulations
p. 349
ZE.4.2.3.1
Interference model
p. 349
ZE.4.2.3.2
Other simulation parameters
p. 350
ZE.4.2.3.3
Results and discussion
p. 350
ZE.4.3
System level simulations
p. 350
ZE.4.3.1
Introduction
p. 350
ZE.4.3.2
Simulation assumptions
p. 351
ZE.4.3.3
Results - non-VAMOS
p. 351
ZE.4.3.4
Results - VAMOS
p. 352
ZE.4.4
Performance comparison according to NewToN framework
p. 353
ZE.4.5
Conclusions
p. 354
ZE.4.6
Performance comparison according to NewToN performance framework
p. 355
ZE.4.7
Detailed link level performance
p. 356