Advisor: Dr. Frank Y. S. Lin Presented by Pei-Wei Li

Slides:



Advertisements
Similar presentations
Energy-efficient distributed algorithms for wireless ad hoc networks Ramki Gummadi (MIT)
Advertisements

Multicasting in Mobile Ad hoc Networks By XIE Jiawei.
Special Topics in Wireless Networking: MAC design and cross-layer issues.
5/5/20151 Mobile Ad hoc Networks COE 549 Transmission Scheduling II Tarek Sheltami KFUPM CCSE COE
S-MAC Sensor Medium Access Control Protocol An Energy Efficient MAC protocol for Wireless Sensor Networks.
1 Crosslayer Design for Distributed MAC and Network Coding in Wireless Ad Hoc Networks Yalin E. Sagduyu Anthony Ephremides University of Maryland at College.
CS Dept, City Univ.1 Low Latency Broadcast in Multi-Rate Wireless Mesh Networks LUO Hongbo.
1 Delay-efficient Data Gathering in Sensor Networks Bin Tang, Xianjin Zhu and Deng Pan.
On Transmission Scheduling in a Server-less Video-on- Demand System.
An Energy-efficient MAC protocol for Wireless Sensor Networks
A Cross Layer Approach for Power Heterogeneous Ad hoc Networks Vasudev Shah and Srikanth Krishnamurthy ICDCS 2005.
A Preferred Link Based Multicast Protocol for Wireless Mobile Ad hoc Networks R. S. Sisodia, Karthigeyan. I, B. S. Manoj, and C. Siva Ram Murthy ICC 2003.
E 2 DTS: An energy efficiency distributed time synchronization algorithm for underwater acoustic mobile sensor networks Zhengbao Li, Zhongwen Guo, Feng.
Fault Tolerant and Mobility Aware Routing Protocol for Mobile Wireless Sensor Network Name : Tahani Abid Aladwani ID :
IEEE TRANSACTIONS ON PARALLEL AND DISTRIBUTED SYSTEMS 2007 (TPDS 2007)
Convergecasting In Wireless Sensor Networks Master’s Thesis by Valliappan Annamalai Committee members Dr. Sandeep Gupta Dr. Arunabha Sen Dr. Hasan Cam.
Multicast Routing in Mobile Ad Hoc Networks (MANETs)
SURE 2006 Transmission Scheduling for Mobile Ad Hoc Networks with Multiple-access Interference Ankit Misra Indian Institute of Technology, Kanpur
A Distributed Framework for Correlated Data Gathering in Sensor Networks Kevin Yuen, Ben Liang, Baochun Li IEEE Transactions on Vehicular Technology 2008.
Multicast Algorithms for Multi- Channel Wireless Mesh Networks Guokai Zeng, Bo Wang, Yong Ding, Li Xiao, Matt Mutka Department of Computer Science and.
IEEE Globecom 2010 Tan Le Yong Liu Department of Electrical and Computer Engineering Polytechnic Institute of NYU Opportunistic Overlay Multicast in Wireless.
G-REMiT: An Algorithm for Building Energy Efficient Multicast Trees in Wireless Ad Hoc Networks Bin Wang and Sandeep K. S. Gupta NCA’03 speaker : Chi-Chih.
Routing and Scheduling for mobile ad hoc networks using an EINR approach Harshit Arora Advisor : Dr. Harlan Russell Mobile ad Hoc Networks A self-configuring.
Energy-Efficient Shortest Path Self-Stabilizing Multicast Protocol for Mobile Ad Hoc Networks Ganesh Sridharan
A Low-Latency and Energy-Efficient Algorithm for Convergecast in Wireless Sensor Networks Authors Sarma Upadhyayula, Valliappan Annamalai, Sandeep Gupta.
Broadcast Scheduling in Mobile Ad Hoc Networks ——Related work and our proposed approach By Group 4: Yan Qiao, Yilin Shen, Bharat C. and Zheng Li Presenter:
MMAC: A Mobility- Adaptive, Collision-Free MAC Protocol for Wireless Sensor Networks Muneeb Ali, Tashfeen Suleman, and Zartash Afzal Uzmi IEEE Performance,
1 G-REMiT: An Algorithm for Building Energy Efficient Multicast Trees in Wireless Ad Hoc Networks Bin Wang and Sandeep K. S. Gupta Computer Science and.
Copyright © 2011, Scalable and Energy-Efficient Broadcasting in Multi-hop Cluster-Based Wireless Sensor Networks Long Cheng ∗ †, Sajal K. Das†,
Algorithms for Energy-Efficient Multicasting in Static Ad Hoc Wireless Networks Mobile Networks and Applications 6, ,2001 Author : JEFFREY E. WIESELTHIER.
Weight-Based Clustering Multicast Routing Protocol for Mobile Ad Hoc Networks Chun-Chieh Huang, Ruay-shiung Chang and Ming-Huang Guo National Dong-Hwa.
Scatternet Formation of Bluetooth Ad Hoc Networks Bin Zhen, Jonghun Park, Yongsuk Kim HICSS 2003.
LOCALIZED MINIMUM - ENERGY BROADCASTING IN AD - HOC NETWORKS Paper By : Julien Cartigny, David Simplot, And Ivan Stojmenovic Instructor : Dr Yingshu Li.
Energy-Efficient Wake-Up Scheduling for Data Collection and Aggregation Yanwei Wu, Member, IEEE, Xiang-Yang Li, Senior Member, IEEE, YunHao Liu, Senior.
S. K. S. Gupta, Arizona State Univ On Maximizing Lifetime of Multicast Trees in Wireless Ad hoc Networks Bin Wang and Sandeep K. S. Gupta Computer Science.
Self-stabilizing energy-efficient multicast for MANETs.
Active Message Application: CONNECT Presented by Xiaozhou David Zhu Oommen Regi July 6, 2001.
Multicast Scaling Laws with Hierarchical Cooperation Chenhui Hu, Xinbing Wang, Ding Nie, Jun Zhao Shanghai Jiao Tong University, China.
GholamHossein Ekbatanifard, Reza Monsefi, Mohammad H. Yaghmaee M., Seyed Amin Hosseini S. ELSEVIER Computer Networks 2012 Queen-MAC: A quorum-based energy-efficient.
1 Grid-Based Access Scheduling for Mobile Data Intensive Sensor Networks C.-K. Lin, V. Zadorozhny and P. Krishnamurthy IEEE International Conference on.
A Bit-Map-Assisted Energy- Efficient MAC Scheme for Wireless Sensor Networks Jing Li and Georgios Y. Lazarou Department of Electrical and Computer Engineering,
Bin Wang, Arizona State Univ S-REMiT: A Distributed Algorithm for Source-based Energy Efficient Multicasting in Wireless Ad Hoc Networks Bin Wang and Sandeep.
Junchao Ma +, Wei Lou +, Yanwei Wu *, Xiang-Yang Li *, and Guihai Chen & Energy Efficient TDMA Sleep Scheduling in Wireless Sensor Networks + Department.
Oregon Graduate Institute1 Sensor and energy-efficient networking CSE 525: Advanced Networking Computer Science and Engineering Department Winter 2004.
A New Class of Mobility Models for Ad Hoc Wireless Networks Rahul Amin Advisor: Dr. Carl Baum Clemson University SURE 2006.
The “New Network Node” Algorithm Brought to you by: Brian Wolf(Researcher) Harlan Russell (Advisor) Joe Hammond (Advisor Emeritus) Vivek Mehta(Graduate.
CSE-591: Term Project Self-stabilizing Network Algorithms by Tridib Mukherjee ASU ID :
Sensor Networks Katia Obraczka Winter 2005 MAC II
2010 IEEE Global Telecommunications Conference (GLOBECOM 2010)
SENSYS Presented by Cheolki Lee
Data Collection and Dissemination
David K. Y. Yau Department of Computer Science Purdue University
Wireless Sensor Network Architectures
Presented by: Vikram Shankar
Net 435: Wireless sensor network (WSN)
IEEE Student Paper Contest
Outline Introduction Network Model and Problem Formulation
Research: algorithmic solutions for networking
Routing in Ad Hoc Networks: A Case for Long Hops
Data Collection and Dissemination
Speaker: Po-Hung Chen Advisor: Dr. Ho-Ting Wu 2016/10/12
ADVISOR : Professor Yeong-Sung Lin STUDENT : Hung-Shi Wang
Gang Lu Bhaskar Krishnamachari Cauligi S. Raghavendra
Subject Name: Adhoc Networks Subject Code: 10CS841
Minimizing Broadcast Latency and Redundancy in Ad Hoc Networks
at University of Texas at Dallas
A Better Approximation for Minimum Total Routing Path Clustering Problem in 2-D Underwater Sensor Networks Wei Wang, Donghyun Kim, and Weili Wu, A Better.
Power Efficient Communication ----Joint Routing, Scheduling and Power Control Design Presenter: Rui Cao.
A Distributed Clustering Scheme For Underwater Sensor Networks
Information Sciences and Systems Lab
Presentation transcript:

Advisor: Dr. Frank Y. S. Lin Presented by Pei-Wei Li A Low-latency and Energy-efficient Scheduling Algorithm for Multi-group Multicasting in Mobile Ad Hoc Networks 具移動性隨意網路下多群組群播之 低延遲與能耗排程演算法 進度報告 Advisor: Dr. Frank Y. S. Lin Presented by Pei-Wei Li

Outline Problem Description Heuristics for getting primal feasible solutions Schedule

Problem Description Step1: construct a multicast tree for each multicast source to reach its group members Step 2: schedule the transmission time of the nodes on these multicast trees and avoid the collision of transmission Objective: minimize the latency of multicasting Consider the mobility of nodes and the energy consumption of transmission.

Problem Description

Problem Description Source 4 6 Source 5 1 7 8 2 3

Problem Description

Problem Description Assumption We get the location and mobility information of all nodes from GPS. Prediction of velocities and oncoming positions of nodes can be provided by Gauss-Markov mobility model. Transmission time can be divided into discrete slots. All nodes in the network have their clocks synchronized. Packet propagation delay can be ignored. Each multicast source has single data to send.

Problem Description

Problem Description Objective function

Heuristics for getting primal feasible solutions

Heuristics for getting primal feasible solutions s

Heuristics for getting primal feasible solutions =2 =3 max_t=2 max_t=3 =4 =3 =5 =1 max_t=4 max_t=5 max_t=3 max_t=1

Heuristics for getting primal feasible solutions max_t=-1 max_t=2 max_t=3 max_t=2 max_t=0 max_t=5 max_t=4 max_t=3 max_t=1

Heuristics for getting primal feasible solutions max_t=0 max_t=3 max_t=1

Heuristics for getting primal feasible solutions max_t=0 max_t=1 max_t=0 max_t=1 max_t=3 max_t=2 max_t=3 max_t=1 =2 max_t=3 =1 =3

Heuristics for getting primal feasible solutions Multicast tree 1: A.B.C.D.E node[A][A].t=1 node[B][A].t=2 Multicast tree 2: F.C.E.G.H node[F][F].t=1 node[C][F].t=2 node[E][F].t=3 A F B C G D E H

Heuristics for getting primal feasible solutions v=1 node[A][A].t=1 set1:A node[F][F].t=1 set2:F B C G D E H

Heuristics for getting primal feasible solutions set1:A set[1].t=2 set2:F set[2].t=1 2 1 B C 3 4 node[F][F].t=1 node[C][F].t=2 node[A][A].t=2 node[E][F].t=3 node[B][A].t=3 G D E 4 H

Heuristics for getting primal feasible solutions v=2 node[A][A].t=2 set1:A node[C][F].t=2 set2:C B C G D E H

Heuristics for getting primal feasible solutions set1:A set[1].t=2 set2:C set[2].t=3 A F 2 1 B C 3 4 node[A][A].t=2 node[B][A].t=3 node[C][F].t=3 node[E][F].t=4 G D E 4 H

Heuristics for getting primal feasible solutions v=3 node[B][A].t=3 set1:B node[C][F].t=3 set2:C B C G D E H

Heuristics for getting primal feasible solutions set1:B set[1].t=4 set2:C set[2].t=3 2 1 B C 3 4 G D node[C][F].t=3 node[B][A].t=4 node[E][F].t=4 E 4 H

Heuristics for getting primal feasible solutions v=4 node[B][A].t=4 set1:B node[E][F].t=4 set2:E 2 1 B C 3 set1:B set[1].t=4 set2:E set[2].t=4 4 G D E 4 H

Heuristics for getting primal feasible solutions 6 4 G G E E 5 4 D D H H

Heuristics for getting primal feasible solutions set1:B set[1].t=6 set2:E set[2].t=4 node[E][F].t=4 node[B][A].t=5 B C 6 G E 4 D H

Schedule 2009.3~2009.4 — Coding、實驗設計 2009.5 — 問題處理 (包括修改heuristic、調整參數) 2009.6 — 實驗數據整理、論文撰寫 2009.7 — 論文口試