
Algorithms for Sensor Systems
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Content
- Title Page
- Preface
- Organization
- Table of Contents
- Invited Talks
- Dynamic Multi-party Computation Forever for Swarm and Cloud Computing and Code Obfuscation
- References
- Local, Self-organizing Strategies for Robotic Formation Problems
- Introduction
- The Gathering Problem
- The Robot Chain Problem
- Outlook
- References
- Sensor Networks Track
- Local Approximation Algorithmsfor the Uncapacitated Metric Facility Location Problem in Power-Aware Sensor Networks
- Introduction
- Preliminaries
- Approximation Algorithms
- (5+\epsilon)-Approximation in O(log1+\epsilon^n) Rounds
- (3+\epsilon)-Approximation in O(log^2_{1+\epsilon}n) Rounds
- Dealing with Dynamics
- Conclusion
- References
- Appendix
- Maximizing Network Lifetime o n the Line with Adjustable Sensing Ranges
- Introduction
- Previous Research
- Our Contribution
- Preliminaries
- Analysis of RoundRobin Algorithms
- RoundRobin
- k-RoundRobin
- log2-RoundRobin
- Optimizations
- Open Problems
- References
- Appendix
- Sensor Fusion: From Dependence Analysis via Matroid Bases to Online Synthesis
- Introduction
- Preliminaries
- A Matroid-Based Framework for Identifying Non-correlated Sensors
- A Sensor Fusion Algorithm via Exponential Weighting
- Results on Real and Artificial Data
- References
- Neighbor Discovery in a Sensor Network with Directional Antennae
- Introduction
- Preliminaries and Notation
- Related Work
- Outline and Results of the Paper
- Deterministic Algorithms for Neighbor Discovery
- Lower Bound
- Antenna Rotation Algorithms
- Complexity of Deterministic Antenna Orientation Algorithm
- Randomized Neighbor Discovery Algorithms
- Deterministic Algorithm with Selection of Random Delay
- Algorithm with Random Selection of Rotation Mechanism
- Algorithm If Bound on Antenna Beam Widths Is Known
- Conclusion and Open Problems
- References
- LiMoSense - Live Monitoring in Dynamic Sensor Networks
- Introduction
- Related Work
- Model and Problem Definition
- Model
- The Live Average Monitoring Problem
- The LiMoSense Algorithm
- Failure-Free Algorithm
- Adding Robustness
- Correctness Overview
- Evaluation
- Static
- Dynamic
- Conclusion
- References
- Evader Interdiction and Collateral Damage
- Introduction
- Preliminaries
- Oblivious Innocents and Evaders Oblivious or Not
- Paths, Trees, and Cycles
- General Graphs
- Reactive Innocents and the Bridges Problem
- Convex Bridge Sets
- The Min-error FP+FN Setting
- References
- Proofs
- Other Hardness Results
- Efficient Algorithms for Network Localization Using Cores of Underlying Graphs
- Introduction
- Preliminaries
- The Length of Longest Induced Cycles and the Dimension of Spaces
- Cycles in Higher-Dimensional Spaces
- Polynomial-Time Algorithm for WGEd on Chordal Graphs
- Algorithms for Graphs with Dominating Cores
- General Frameworks for d {1,2}
- Applications of General Frameworks
- Concluding Remarks
- References
- Proof of Theorem 3.4
- Minimizing Average Interference through Topology Control
- Introduction
- Problem Definitions
- Minimizing Average Interference in 1D Networks
- Independent Subproblems
- Algorithms
- Analysis
- Bound on MMI while Minimizing Average Interference
- Preliminaries
- The Upper Bound
- Minimizing Average Interference in 2D Networks
- Basic Ideas
- Algorithms to Compute MAI
- Analysis
- Conclusion
- References
- On Barrier Resilience of Sensor Networks
- Introduction
- Reduction to Edge Colouring of (Bi)3-graphs
- Problem Statement
- Reduction
- Proof of Correctness
- Reduction to ULS-RES
- Relationship to Resilience of a Sensor Network
- Building the Obstacle Environment
- Correctness of the Reduction
- Extension to Other Sensor Shapes
- Hardness of Approximation
- Conclusion
- References
- Distributed (? + 1)-Coloring in the Physical Model
- Introduction
- Related Work
- Our Contribution
- Problem Definitions and Model
- An O(logn+log2n) (?+1)-Coloring Algorithm
- Analysis
- Distributed (? +1)-Coloring for Uniform Power Assignment
- Conclusion
- References
- Ad Hoc Wireless and Mobile Systems Track
- Continuous Monitoring in the Dynamic Sensor Field Model
- Introduction
- The Dynamic Sensor Field Model
- Continuous Monitoring of Static Data
- Continuous Monitoring of Dynamic Data Using Static Devices
- Continuous Monitoring of Dynamic Data Using Dynamic Devices
- Conclusion and Open Problems
- References
- Minimum-Cost Broadcast through Varying-Size Neighborcast
- Introduction
- Preliminaries
- Problem Settings Parameterized by b
- b=0 and b=1
- b log2 3
- 1 b log2 3
- 0 & b & 1
- Conclusion
- References
- Hardness Results
- Real-Time Video Streaming in Multi-hop Wireless Static Ad Hoc Networks
- Introduction
- Problem Definition
- Preliminaries
- Interference Models
- Algorithm MF-I-S
- Networks Governed by Time-Slotted Frequency Tables
- Algorithm Specification
- Algorithm Description
- Flow Control
- Experimental Results
- Scenarios
- Benchmarks
- Results
- Conclusions
- Discussion
- References
- Multi-hop Routing and Scheduling in Wireless Networks in the SINR Model
- Introduction
- Preliminaries
- Problem Definition
- Necessary Conditions: sinr-Feasibility for Links in the Same Bucket
- A Geometric Lemma
- Necessary Conditions
- LP Relaxation
- Algorithm
- Algorithm Description
- Removing Minuscule Flow Paths
- Greedy Multi-coloring
- The Dispersion Procedure disperse
- Algorithm Analysis
- Given Arbitrary Transmission Powers
- Limited Powers
- References
- Wireless Capacity with Arbitrary Gain Matrix
- Introduction
- Related Work
- SDP-Based Algorithm
- Numerical Experiments
- Conclusion
- References
- On the Capacity of Oblivious Powers
- Introduction
- Problem Formulation
- Conjugate Power Assignments
- Non-increasing and Super-Linearly Increasing Power Assignments
- The Capacity of $L_ 0$
- Comparing the Two Communication Models
- Noise Factor
- Future Work
- References
- Author Index
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