Optimal cross-layer resource allocation in cellular networks using channel- and queue-state information

Keyphrases

• Channel State Information 100%
• Cellular Networks 100%
• Cross-layer Resource Allocation 100%
• Queue State Information 100%
• Wireless Systems 50%
• Allocation Strategy 50%
• Flow Control 50%
• Stochastic Approximation 50%
• Cross-layer Design 50%
• Performance Metrics 50%
• Operating Conditions 50%
• Simple Mechanisms 50%
• Access Point 50%
• Uplink 50%
• Link Layer 50%
• Transport Flows 50%
• Physical Layer 50%
• Optimal Algorithm 50%
• Information Exchange 50%
• Lagrange multiplier 50%
• Delay Effects 50%
• Cellular Systems 50%
• Control Layer 50%
• Quality of Service Guarantee 50%
• Utility Maximization Problem 50%
• Orthogonal Channels 50%
• Optimal Allocation 50%
• Flat Fading 50%
• Queue Length 50%
• Average Delay 50%
• Stochastic Convex Optimization 50%
• Queue Stability 50%
• Control Link 50%
• Point Exchange 50%
• Constrained Utility Maximization 50%
• Link Queue Model 50%
• Instantaneous Channel State Information 50%

Computer Science

• Cellular Network 100%
• State Information 100%
• Layer Resource Allocation 100%
• Wireless System 50%
• Allocation Strategy 50%
• Flat Fading 50%
• Operating Condition 50%
• Access Point 50%
• Convex Optimization 50%
• Performance Metric 50%
• Average Performance 50%
• Optimal Algorithm 50%
• Physical Layer 50%
• Quality of Service 50%
• Stochastic Approximation 50%
• Cellular System 50%
• Channel State Information 50%
• Utility Maximization 50%
• Service Requirement 50%
• Flow Control 50%
• Optimal Allocation 50%
• Length Information 50%
• Lagrange Multiplier Method 50%
• Queueing Delay 50%

Engineering

• State Information 100%
• Layer Resource Allocation 100%
• Cellular Network 100%
• Metrics 50%
• Channel State Information 50%
• Lagrange Multiplier Method 50%
• Optimal Allocation 50%
• Cross-Layer Design 50%
• Service Requirement 50%
• Quality of Service 50%
• Access Point 50%
• Queueing Delay 50%