Wireless Sensor Networks M Homework #1. Part 1 Consider two sensor devices (one transmitter and one receiver) IEEE 802.15.4 standard- compliant. Assume.

Slides:



Advertisements
Similar presentations
Cooperative Transmit Power Estimation under Wireless Fading Murtaza Zafer (IBM US), Bongjun Ko (IBM US), Ivan W. Ho (Imperial College, UK) and Chatschik.
Advertisements

Optimization of Radio resources Krishna Chaitanya Kokatla.
ECE358: Computer Networks Fall 2014
Assume that a file is transferred from a node A to a node B. The file has been fragmented in 5 frames (denoted as f0, f1, f2, f3, f4). Show the flow of.
PERFORMANCE MEASUREMENTS OF WIRELESS SENSOR NETWORKS Gizem ERDOĞAN.
1 Cooperative Transmissions in Wireless Sensor Networks with Imperfect Synchronization Xiaohua (Edward) Li, Mo Chen and Wenyu Liu Department of Electrical.
Cooperative Multiple Input Multiple Output Communication in Wireless Sensor Network: An Error Correcting Code approach using LDPC Code Goutham Kumar Kandukuri.
Computer Networks Computer Networks Term B10 Network Delay Network Delay Performance Problems.
ECE 4321 Computer Networks Chapter 4 Transmission Media: Wireless.
An Empirical Characterization of Radio Signal Strength Variability in 3-D IEEE Networks Using Monopole Antennas Dimitrios Lymberopoulos, Quentin.
Summary of Path Loss in Propagation
A Survey on Energy Efficient MAC Protocol for Wireless Sensor Networks Huma Naushad.
Networks: Sample Performance Problems 1 Sample Network Performance Problems.
Advanced Computer Networks 1 Sample Network Performance Problems.
July 2015 doc.: IEEE /XXXXr0 July 2015
Chapter 8 COMMUNICATION AND COMPUTER NETWORK
Lecture 2: Introduction to case studies: Radiolink Anders Västberg
ECE 480 Wireless Systems Lecture 14 Problem Session 26 Apr 2006.
Link Budget Calculation
Wireless Transmission Fundamentals (Physical Layer) Professor Honggang Wang
CRANE Project Wireless Networking Demonstration. a)Single-hop transmission b)Multi-hop transmission with a mobile relay node.
August 21, Mobile Computing COE 446 Network Planning Tarek Sheltami KFUPM CCSE COE Principles of.
Energy Saving In Sensor Network Using Specialized Nodes Shahab Salehi EE 695.
College of Engineering Resource Management in Wireless Networks Anurag Arepally Major Adviser : Dr. Robert Akl Department of Computer Science and Engineering.
IEEE TRANSACTIONS ON PARALLEL AND DISTRIBUTED SYSTEMS 2007 (TPDS 2007)
07/21/2005 Senmetrics1 Xin Liu Computer Science Department University of California, Davis Joint work with P. Mohapatra On the Deployment of Wireless Sensor.
Training materials for wireless trainers
Signal Propagation Propagation: How the Signal are spreading from the receiver to sender. Transmitted to the Receiver in the spherical shape. sender When.
1 Core-PC: A Class of Correlative Power Control Algorithms for Single Channel Mobile Ad Hoc Networks Jun Zhang and Brahim Bensaou The Hong Kong University.
Echo Cancellation Chapter 4. Echo : Echo is the repetition of a signal back to the transmitter; either due to a coupling between the loudspeaker and microphone.
Data and Computer Communications Ninth Edition by William Stallings Data and Computer Communications, Ninth Edition by William Stallings, (c) Pearson Education.
Project: IEEE P Working Group for Wireless Personal Area Networks(WPANs) Submission Title: Link Budget for m Date Submitted: 5 March 2012.
The University of Iowa. Copyright© 2005 A. Kruger 1 Introduction to Wireless Sensor Networks Energy Considerations in WSNs I 3 February 2005.
Dept. of EE, NDHU 1 Chapter Five Communication Link Analysis.
By Ya Bao1 Antennas and Propagation. 2 By Ya Bao Introduction An antenna is an electrical conductor or system of conductors Transmission - radiates electromagnetic.
SIMPLE: Stable Increased Throughput Multi-hop Link Efficient Protocol For WBANs Qaisar Nadeem Department of Electrical Engineering Comsats Institute of.
Minimizing Energy Consumption with Probabilistic Distance Models in Wireless Sensor Networks Yanyan Zhuang, Jianping Pan, Lin Cai University of Victoria,
Riku Jantti Telecommunication Engineering at University of Vaasa, Finland Seong-Lyun Kim Electrical and Electronic Engineering, Yonsei University, Seoul,
LOT System – Block Diagram. System Specifications (1) Sampling Rates. Maximum Ball Sampling Rate : 100 samples/sec. Maximum Sampling Rate per Student.
Dynamic Data Rate and Transmit Power Adjustment in IEEE Wireless LANs Pierre Chevillat, Jens Jelitto, and Hong Linh Truong IBM Zurich Research Laboratory.
Doc.: IEEE /089 Submission January 2002 Steve Halford, IntersilSlide 1 Maximum Received Power for g Steve Halford Mark Webster.
Wireless Sensor Networks M Homework #2. IEEE MAC Protocol - Star topology – Part I Consider a square area equipped with 30 nodes distributed.
Performance comparison between slotted IEEE and IEEE ah in IoT based applications Speaker: Po-Hung Chen Advisor: Dr. Ho-Ting Wu 2016/01/21.
Doc.: IEEE /0039r2 Submission Nov 2010 Raja Banerjea, Marvell SemiconductorSlide 1 Transmit Spectral Mask Changes Date: Authors:
Performance Evaluation of Multiple IEEE b WLAN Stations in the Presence of Bluetooth Radio.
1) A binary transmission system uses a 8-bit word encoding system. Find the Bandwidth and the SNR dB of the system if the channel capacity is bps.
1 Effectiveness of Physical and Virtual Carrier Sensing in IEEE Wireless Ad Hoc Networks Fu-Yi Hung and Ivan Marsic WCNC 2007.
Signal Propagation Basics
The University of Iowa. Copyright© 2005 A. Kruger 1 Introduction to Wireless Sensor Networks Wireless Terms, FAQ & Glossary 27 January 2005.
AN EFFICIENT TDMA SCHEME WITH DYNAMIC SLOT ASSIGNMENT IN CLUSTERED WIRELESS SENSOR NETWORKS Shafiq U. Hashmi, Jahangir H. Sarker, Hussein T. Mouftah and.
-1/16- Maximum Battery Life Routing to Support Ubiquitous Mobile Computing in Wireless Ad Hoc Networks C.-K. Toh, Georgia Institute of Technology IEEE.
ALLAH ALLAH. Compiled by :Engr.Muhammad Waseem( MS Telecommunication,England,BS.(ssuet)). Assistant Professor, Telecom Eng.Deptt. Sir Syed University.
Antennas and Propagation
Signal Propagation Basics
CSE 5345 – Fundamentals of Wireless Networks
Chapter 7 Politeknik Telkom 2008.
Cellular and Wireless Networks System Design Fundamentals
Antennas.
On the Physical Carrier Sense in Wireless Ad-hoc Networks
Wireless NETWORKS NET 434 Topic # 3 Wireless Transmission and Channel
Wireless Channels Y. Richard Yang 01/12/2011.
Error control coding for wireless communication technologies
Submission Title: Link Budget for m
Wireless Communications Chapter 4
Chapter 6 Transmission of Digital Data Interfaces and Modems
Sample Network Performance Problems
Characterization of Wireless Networks in the Home
White Space Regulatory Issues
Sample Network Performance Problems
IPSN19 杨景
Presentation transcript:

Wireless Sensor Networks M Homework #1

Part 1 Consider two sensor devices (one transmitter and one receiver) IEEE standard- compliant. Assume that the Loss in dB between the two nodes at distance d, is given by: L[dB]=k 0 +k 1 ln(d) Where k 0 =40 dB, k 1 =17.37 and ln is the natural logarithm. By setting the bilateral power spectral density of the receiver, N 0 = 8* W/Hz and the transmit power, P t = 0 dBm, which is the maximum distance between the two devices, such that the Block Error Rate, BLER is lower than 10 -2, when a data block composed of 10 Bytes is transmitted?

Part 2 Two IEEE sensor nodes (one transmitter and one receiver) are d meters apart at a height of 1 m above the ground. When the transmitter takes a sample from the environment, it encodes it with 4 bytes and transmits it through a data block composed of 30 bytes overall. The link uses channel 24 of IEEE , with transmission power set at 0.1 mW. In the presence of obstacles (like ground) a propagation coefficient, , equal to 2.5 should be considered. The bilateral power spectral density of the receiver, N 0 = 9* W/Hz The energy consumed by the transmitting node to send the data is 60  J. The initial battery charge is J. The energy consumed by the receiving node to receive the data is 50  J. Its initial battery charge is J. 1)By setting the transmitter and receiver distance, d, to the maximum value satisfying the free space conditions, compute the BLER 2)Now set d=40 m and compute the BLER 3)Assuming the application requires to receive one sample every 16 ms, compute the link lifetime