IIT Bombay 19 th Dec 2008 19 th Dec 2008 Tracking Dynamic Boundary Fronts using Range Sensors Subhasri Duttagupta (Ph. D student), Prof. Krithi Ramamritham.

Slides:



Advertisements
Similar presentations
TARGET DETECTION AND TRACKING IN A WIRELESS SENSOR NETWORK Clement Kam, William Hodgkiss, Dept. of Electrical and Computer Engineering, University of California,
Advertisements

Bayesian Belief Propagation
1 ECE 776 Project Information-theoretic Approaches for Sensor Selection and Placement in Sensor Networks for Target Localization and Tracking Renita Machado.
OSE meeting GODAE, Toulouse 4-5 June 2009 Interest of assimilating future Sea Surface Salinity measurements.
Spectrum Awareness in Cognitive Radio Systems based on Spectrum Sensing Miguel López-Benítez Department of Electrical Engineering and Electronics University.
David Chu--UC Berkeley Amol Deshpande--University of Maryland Joseph M. Hellerstein--UC Berkeley Intel Research Berkeley Wei Hong--Arched Rock Corp. Approximate.
Image-Based Target Detection and Tracking Aggelos K. Katsaggelos Thrasyvoulos N. Pappas Peshala V. Pahalawatta C. Andrew Segall SensIT, Santa Fe January.
Real-time Estimation of Accident Likelihood for Safety Enhancement Jun Oh, Ph.D., PE, PTOE Western Michigan University March 14, 2007.
IIT Bombay Tracking Dynamic Phenomena: Sensor Networks to the Rescue Krithi Ramamritham Dept of Computer Sc. & Engg. Indian Institute of Technology Bombay.
Yanxin Shi 1, Fan Guo 1, Wei Wu 2, Eric P. Xing 1 GIMscan: A New Statistical Method for Analyzing Whole-Genome Array CGH Data RECOMB 2007 Presentation.
Temporal Video Denoising Based on Multihypothesis Motion Compensation Liwei Guo; Au, O.C.; Mengyao Ma; Zhiqin Liang; Hong Kong Univ. of Sci. & Technol.,
1/24 Passive Interference Measurement in Wireless Sensor Networks Shucheng Liu 1,2, Guoliang Xing 3, Hongwei Zhang 4, Jianping Wang 2, Jun Huang 3, Mo.
1 Distributed localization of networked cameras Stanislav Funiak Carlos Guestrin Carnegie Mellon University Mark Paskin Stanford University Rahul Sukthankar.
Self-Correlating Predictive Information Tracking for Large-Scale Production Systems Zhao, Tan, Gong, Gu, Wambolt Presented by: Andrew Hahn.
Sensor placement applications Monitoring of spatial phenomena Temperature Precipitation... Active learning, Experiment design Precipitation data from Pacific.
1 Energy-Efficient localization for networks of underwater drifters Diba Mirza Curt Schurgers Department of Electrical and Computer Engineering.
May 14, Organization Design and Dynamic Resources Huzaifa Zafar Computer Science Department University of Massachusetts, Amherst.
Probabilistic Data Aggregation Ling Huang, Ben Zhao, Anthony Joseph Sahara Retreat January, 2004.
Tracking using the Kalman Filter. Point Tracking Estimate the location of a given point along a sequence of images. (x 0,y 0 ) (x n,y n )
Prepared By: Kevin Meier Alok Desai
Speech Recognition in Noise
Scalable Information-Driven Sensor Querying and Routing for ad hoc Heterogeneous Sensor Networks Maurice Chu, Horst Haussecker and Feng Zhao Xerox Palo.
Goal: Fast and Robust Velocity Estimation P1P1 P2P2 P3P3 P4P4 Our Approach: Alignment Probability ●Spatial Distance ●Color Distance (if available) ●Probability.
Bayesian Filtering for Location Estimation D. Fox, J. Hightower, L. Liao, D. Schulz, and G. Borriello Presented by: Honggang Zhang.
An Energy-efficient Target Tracking Algorithm in Wireless Sensor Networks Wang Duoqiang, Lv Mingke, Qin Qi School of Computer Science and technology Huazhong.
Time-series InSAR with DESDynI: Lessons from ALOS PALSAR Piyush Agram a, Mark Simons a and Howard Zebker b a Seismological Laboratory, California Institute.
Optimal Placement and Selection of Camera Network Nodes for Target Localization A. O. Ercan, D. B. Yang, A. El Gamal and L. J. Guibas Stanford University.
Kalman filter and SLAM problem
Presented by: Chaitanya K. Sambhara Paper by: Maarten Ditzel, Caspar Lageweg, Johan Janssen, Arne Theil TNO Defence, Security and Safety, The Hague, The.
Accuracy-Aware Aquatic Diffusion Process Profiling Using Robotic Sensor Networks Yu Wang, Rui Tan, Guoliang Xing, Jianxun Wang, Xiaobo Tan Michigan State.
Consensus-based Distributed Estimation in Camera Networks - A. T. Kamal, J. A. Farrell, A. K. Roy-Chowdhury University of California, Riverside
Remote Sensing of Urban Landscape Lecture 11 November 10, 2004.
Course Project Intro IMM-JPDAF Multiple-Target Tracking Algorithm: Description and Performance Testing By Melita Tasic 3/5/2001.
A Distributed Clustering Framework for MANETS Mohit Garg, IIT Bombay RK Shyamasundar School of Tech. & Computer Science Tata Institute of Fundamental Research.
Energy-Aware Scheduling with Quality of Surveillance Guarantee in Wireless Sensor Networks Jaehoon Jeong, Sarah Sharafkandi and David H.C. Du Dept. of.
Prediction-based Object Tracking and Coverage in Visual Sensor Networks Tzung-Shi Chen Jiun-Jie Peng,De-Wei Lee Hua-Wen Tsai Dept. of Com. Sci. and Info.
Indianapolis flux (INFLUX) in-situ network: quantification of urban atmospheric boundary layer greenhouse gas dry mole fraction enhancements 18 th WMO/IAEA.
Young Ki Baik, Computer Vision Lab.
DISCERN: Cooperative Whitespace Scanning in Practical Environments Tarun Bansal, Bo Chen and Prasun Sinha Ohio State Univeristy.
On Placement and Dynamic Power Control Of Femto Cells in LTE HetNets
Space-Time Mesoscale Analysis System A sequential 3DVAR approach Yuanfu Xie, Steve Koch John McGinley and Steve Albers Global Systems Division Earth System.
A Novel Distributed Sensor Positioning System Using the Dual of Target Tracking Liqiang Zhang, Member, IEEE, Qiang Cheng, Member, IEEE, Yingge Wang, and.
Page 1 Inferring Relevant Social Networks from Interpersonal Communication Munmun De Choudhury, Winter Mason, Jake Hofman and Duncan Watts WWW ’10 Summarized.
Gap-filling and Fault-detection for the life under your feet dataset.
2017/4/25 INDOOR LOCALIZATION SYSTEM USING RSSI MEASUREMENT OF WIRELESS SENSOR NETWORK BASED ON ZIGBEE STANDARD Authors:Masashi Sugano, Tomonori Kawazoe,
Secure In-Network Aggregation for Wireless Sensor Networks
Dr. Sudharman K. Jayaweera and Amila Kariyapperuma ECE Department University of New Mexico Ankur Sharma Department of ECE Indian Institute of Technology,
NCAF Manchester July 2000 Graham Hesketh Information Engineering Group Rolls-Royce Strategic Research Centre.
Analyzing wireless sensor network data under suppression and failure in transmission Alan E. Gelfand Institute of Statistics and Decision Sciences Duke.
3.7 Adaptive filtering Joonas Vanninen Antonio Palomino Alarcos.
1 Hidra: History Based Dynamic Resource Allocation For Server Clusters Jayanth Gummaraju 1 and Yoshio Turner 2 1 Stanford University, CA, USA 2 Hewlett-Packard.
Client Assignment in Content Dissemination Networks for Dynamic Data Shetal Shah Krithi Ramamritham Indian Institute of Technology Bombay Chinya Ravishankar.
State Estimation and Kalman Filtering Zeeshan Ali Sayyed.
IEEE International Conference on Multimedia and Expo.
Detection and Quantification of Atmospheric Boundary Layer Greenhouse Gas Dry Mole Fraction Enhancements from Urban Emissions: Results from INFLUX NOAA.
IIT Bombay 17 th National Conference on Communications, Jan. 2011, Bangalore, India Sp Pr. 1, P3 1/21 Detection of Burst Onset Landmarks in Speech.
U of Minnesota DIWANS'061 Energy-Aware Scheduling with Quality of Surveillance Guarantee in Wireless Sensor Networks Jaehoon Jeong, Sarah Sharafkandi and.
A Protocol for Tracking Mobile Targets using Sensor Networks H. Yang and B. Sikdar Department of Electrical, Computer and Systems Engineering Rensselaer.
Data funneling : routing with aggregation and compression for wireless sensor networks Petrovic, D.; Shah, R.C.; Ramchandran, K.; Rabaey, J. ; SNPA 2003.
Robust Localization Kalman Filter & LADAR Scans
Hierarchical Coordinated Checkpointing Protocol Himadri Sekhar Paul. Arobinda Gupta. R. Badrinath. Dept. of Computer Sc. & Engg. Indian Institute of Technology,
Proximity Optimization for Adaptive Circuit Design Ang Lu, Hao He, and Jiang Hu.
Kalman Filter and Data Streaming Presented By :- Ankur Jain Department of Computer Science 7/21/03.
Alexander Loew1, Mike Schwank2
Paper – Stephen Se, David Lowe, Jim Little
ASEN 5070: Statistical Orbit Determination I Fall 2014
A New Approach to Track Multiple Vehicles With the Combination of Robust Detection and Two Classifiers Weidong Min , Mengdan Fan, Xiaoguang Guo, and Qing.
Latent Space Model for Road Networks to Predict Time-Varying Traffic
Overview: Chapter 2 Localization and Tracking
Nome Sobrenome. Time time time time time time..
Presentation transcript:

IIT Bombay 19 th Dec th Dec 2008 Tracking Dynamic Boundary Fronts using Range Sensors Subhasri Duttagupta (Ph. D student), Prof. Krithi Ramamritham Dept of Computer Sc. & Engg, Indian Institute of Technology, Bombay, India

IIT Bombay 19 th Dec th Dec 2008 Early Warning System For Landslide Prediction using Sensor Networks Traffic Management on Highways

IIT Bombay 3 19 th Dec 2008 Tracking Boundary Fronts Compute confidence band with high accuracy. Compute confidence band with high accuracy.  δ Width of the band Estimate band with minimum communication overheads Estimate band with minimum communication overheads n, δ Boundary Front Tracking When is the tornado going to hit the city? [Manfredi et al. 2005] n = number of observations k, loss of coverage

IIT Bombay 4 19 th Dec 2008 Combining Spatial and Temporal Estimation at a location Feedback improves the accuracy of Temporal Estimation yes Spatial Estimation no Multiple Observations Temporal Estimation Feedback from Spatial change > threshold Observation Spatial Estimation How to estimate Temporal Estimation When to update

IIT Bombay 5 19 th Dec 2008 Placement of Estimation Points Goal: Minimize LOC of interpolated band Goal: Minimize LOC of interpolated band Start with a small set of equidistant points and perform spatial estimation at these points Start with a small set of equidistant points and perform spatial estimation at these points Add more estimation points in the region of high variance (variance implies spatial variation) Add more estimation points in the region of high variance (variance implies spatial variation) regions with high variance Prediction Error Function can represent Prediction Error Function can represent LOC without the knowledge of actual boundary

IIT Bombay 6 19 th Dec 2008 Comparison of DBTR, SE, TE DBTR performs better by 2-4 % DBTR performs better by 2-4 % DBTR utilizes benefits of both the techniques DBTR utilizes benefits of both the techniques Difference in accuracy does not change with δ. Difference in accuracy does not change with δ. Spatial Estimation provides more accuracy for lower δ Spatial Estimation provides more accuracy for lower δ Temporal Estimation has better accuracy for larger δ Temporal Estimation has better accuracy for larger δ

IIT Bombay 7 19 th Dec 2008 Conclusions Tracking dynamic boundary fronts using range sensors Tracking dynamic boundary fronts using range sensors DBTR tracks both spatial and temporal variations with low communication overheads DBTR tracks both spatial and temporal variations with low communication overheads Spatial estimation technique uses kernel smoothing to reduce the effect of noise Spatial estimation technique uses kernel smoothing to reduce the effect of noise Temporal estimation technique uses Kalman filter model- based approach updates estimate before the boundary moves out of confidence band Temporal estimation technique uses Kalman filter model- based approach updates estimate before the boundary moves out of confidence band

IIT Bombay 8 19 th Dec 2008 DBTR: Dynamic Boundary Tracking Spatial variations captured using spatial estimation Temporal variations captured using temporal estimation Interpolation over estimates at k estimation points

IIT Bombay 9 19 th Dec 2008 Sensing nodes Cluster heads TE(x p1 ) actual boundary x p1 TE(x p2 ) x p2 h neighborhood Location of Spatial Estimation (SE) and Temporal Estimation (TE) SE(x p1, x p2 ) SE(x p1 )