1.  Team Members  Team Leader: Adam Jackson  Communication Coordinator: Nick Ryan  Bader Al-Sabah  David Feely  Richard Jones  Faculty Advisor.

Slides:



Advertisements
Similar presentations
1 © 2004, Cisco Systems, Inc. All rights reserved. CCNA 1 v3.1 Module 7 Ethernet Technologies.
Advertisements

1 Data Link Protocols Relates to Lab 2. This module covers data link layer issues, such as local area networks (LANs) and point-to-point links, Ethernet,
Spring 2004 EE4272 EE4272: Computer Networks Instructor: Dr. Tricia Chigan Dept.: Elec. & Comp. Eng.
© 2006 Cisco Systems, Inc. All rights reserved.Cisco Public BSCI Module 7 Lesson 2 1 IP Multicasting: IGMP and Layer 2 Issues.
1 6/22/ :39 Chapter 9Fiber Channel1 Rivier College CS575: Advanced LANs Chapter 9: Fibre Channel.
Business Data Communications Chapter Six Backbone and Metropolitan Area Network Fundamentals.
Best Practices for Ensuring LAN Performance Transitioning Networks to Gigabit Ethernet.
Building a Simple Network
Dense Wavelength Division Multiplexed Interconnects for High Performance Embedded Computing Architectures Aaron M. Cordes & Rick C. Stevens Lockheed Martin.
Practical TDMA for Datacenter Ethernet
Automatic Software Testing Tool for Computer Networks ARD Presentation Adi Shachar Yaniv Cohen Dudi Patimer
PIC Evaluation/ Development Board Dec02-12 December 10, 2002 Client: ECpE Department Faculty Advisors: Dr. Rover, Dr. Weber Chad Berg, Luke Bishop, Tyson.
1.  Team Members  Team Leader: Adam Jackson  Communication Coordinator: Nick Ryan  Bader Al-Sabah  David Feely  Richard Jones  Faculty Advisor.
© 2006 Cisco Systems, Inc. All rights reserved.Cisco PublicITE I Chapter 6 1 LAN Design LAN Switching and Wireless – Chapter 1.
Technology in Action Chapter 7 Networking and Security: Connecting Computers and Keeping Them Safe from Hackers and Viruses.
Network Design Essentials
Chapter 9A Network Basics.
Bi-Directional RF Data Communication A Robot Control Device Team BDRFC.
Wave Relay System and General Project Details. Wave Relay System Provides seamless multi-hop connectivity Operates at layer 2 of networking stack Seamless.
EE 491 Project Presentation May07-04 – PDA Based UAS Remote Video Terminal Team Members: Devin Carney Jonathan Farmer Matt Henkes Rene Rios Faculty Advisor:
 Fiber optic network in ring topology  Custom software implementing a Time Division Multiplexing (TDM) scheme  Documentation summarizing conclusions.
CSCI-235 Micro-Computer in Science The Network. © Prentice-Hall, Inc Communications  Communication is the process of sending and receiving messages 
LOGO BUS SYSTEM Members: Bui Thi Diep Nguyen Thi Ngoc Mai Vu Thi Thuy Class: 1c06.
Topology Level: Prep-I Topic: Computer Networks Ms. Fouzia Yousuf October 25, 2010.
Automatic Software Testing Tool for Computer Networks ADD Presentation Dudi Patimer Adi Shachar Yaniv Cohen
Repeaters and Hubs Repeaters: simplest type of connectivity devices that regenerate a digital signal Operate in Physical layer Cannot improve or correct.
Scott Coffin Adam Faucher Jason Graika Brian Voelz Client: Honeywell Advisor: Dr. Zhengdao Wang.
$100 $200 $300 $400 $500 Network topologies Client Architecture Physical Transmission Media Uses of Tele communications Misc. Network Misc. Network.
Senior Design Laboratory Design Dec 05-01
Mixed-Signal Option for the Teradyne Integra J750 Test System May08-12 Emily Evers Vincent Tai.
Topology, refers to the physical and logical diagrams which summarize network connections and information flow.
1 Optical Packet Switching Techniques Walter Picco MS Thesis Defense December 2001 Fabio Neri, Marco Ajmone Marsan Telecommunication Networks Group
Network Enabled Wearable Sensors The Combined Research Curriculum Development (CRCD) project works with the Virtual Reality Applications Center (VRAC)
Reconfigurable Communication Link Between FASTER and RTSim Interface Matthew McCollum Mark Krause Derek Keibler.
NETWORKING COMPONENTS Buddy Steele Assignment 3, Part 1 CECS-5460: Summer 2014.
Senior Design May High Performance Optical Interconnect April 24, 2007.
KAIS T Computer Architecture Lab. Div. of CS, Dept. of EECS KAIST CS492 Lab Summary.
McGraw-Hill©The McGraw-Hill Companies, Inc., 2004 Connecting Devices CORPORATE INSTITUTE OF SCIENCE & TECHNOLOGY, BHOPAL Department of Electronics and.
Network design Topic 6 Testing and documentation.
Design Team : Advisor: Dr. Edwin Project Web Site: Client: Paul
D R A T D R A T ABSTRACT Every semester each department at Iowa State University has to assign its faculty members and teaching assistants (TAs) to the.
1 3/3/04 Update Virtual Prototyping of Advanced Space System Architectures based on RapidIO Principal Investigator: Dr. Alan D. George OPS Graduate Assistants:
1 © 2004, Cisco Systems, Inc. All rights reserved. CCNA 2 v3.1 Module 9 Basic Router Troubleshooting.
Interconnect Networks Basics. Generic parallel/distributed system architecture On-chip interconnects (manycore processor) Off-chip interconnects (clusters.
Mixed-Signal Option for the Teradyne Integra J750 Test System
Reconfigurable Communication Interface Between FASTER and RTSim Dec0907.
Ethernet Advanced Chapter 5. Release 16/7/2009 Chapter Objectives Explain 10Base-T network Explain 10Base-FL Explain the rule Identify different.
Networking update and plans (see also chapter 10 of TP) Bob Dobinson, CERN, June 2000.
CHAPTER -II NETWORKING COMPONENTS CPIS 371 Computer Network 1 (Updated on 3/11/2013)
© 2007 Cisco Systems, Inc. All rights reserved.Cisco Public ITE PC v4.0 Chapter 1 1 Planning a Network Upgrade Working at a Small-to-Medium Business or.
ROD Activities at Dresden Andreas Glatte, Andreas Meyer, Andy Kielburg-Jeka, Arno Straessner LAr Electronics Upgrade Meeting – LAr Week September 2009.
G. Russo, D. Del Prete, S. Pardi Frascati, 2011 april 4th-7th The Naples' testbed for the SuperB computing model: first tests G. Russo, D. Del Prete, S.
Cisco 3 - Switch Perrine. J Page 17/3/2016 Chapter 3 Which of the following are found in the EIGRP neighbor table? (Choose two.) 1.routes installed by.
© Airspan Networks Inc. Automatic QoS Testing over IEEE Standard.
High Speed Interconnect Project
Network Topology and LAN Technologies
High Speed Optical Interconnect Project May08-06
High Speed Interconnect Project May08-06
High Speed Interconnect Project May08-06
High Speed Optical Interconnect Project May08-06
Presented Hardware Setup
High Speed Optical Interconnect Project May08-06
High Speed Optical Interconnect Project May08-06
High Speed Optical Interconnect Project May08-06
Software Project Management
Planetarium Resuscitation Ongo-06 May 1, 2002
High Speed Optical Interconnect Project May08-06
Campus Locator – Definition Phase (May04-04)
Software Project Management
May08-06.
Presentation transcript:

1

 Team Members  Team Leader: Adam Jackson  Communication Coordinator: Nick Ryan  Bader Al-Sabah  David Feely  Richard Jones  Faculty Advisor Dr. Ahmed Kamal  Client Contacts Aaron Cordes Rick Stevens Client: Lockheed Martin 2

 At this time, the maximum real-world throughput of 10 Gbps network configurations is unknown. 3  Investigate a 10 Gbps network using fiber optical components  Test final system

 Functional 1.The network shall be implemented with 10 Gbps components. 2.The team shall test the network to determine real throughput.  Non-Functional 3.Must be implemented before the class completes in May Must determine financial feasibility of fiber optic components. 4

2.1 The team shall test the network to determine real-world bandwidth. 2.2 The team shall test the network to determine bandwidth efficiency. 2.3 The team shall test the network to determine switch time The team shall test the network to determine latency. 2.5 The team shall test the network to determine quality of service.

 A team member could leave the project  Insufficient funding for project completion  Component failure 6

 The team shall present the chosen design solution to LM for approval before implementation.  The team shall provide weekly reports to LM.  The team shall present the test results to LM.  The team shall deliver a final report and all documentation to LM.  The team shall deliver the prototype to LM at the completion of this project.  All deliverables shall be presented to Rick Stevens on or before May 1,

8 Design Strategy Block Diagram

µTCAPCI-E  Advantages  Modular design allows for expansion  Gbps maximum throughput for Advanced Mezzanine Cards (AMC)  Disadvantages  AMC Network Interface Cards at 10 Gbps are not readily available  Costly components  Advantages  Readily available optical 10 Gbps NICs  Variety of 10 Gbps XFP Switches  Relatively low cost components  Disadvantages  Lack of PCI-E systems at ISU Source: 9

10

11  Composed of three nodes and a Ethernet switch  Used for testing switching time, latency, and quality of service Graphic inspired by previous HSOI team

Myricom 10G-PCIE-8A-R+E® 10 Gigabit Ethernet PCIe Adapter with pluggable XFP optical interface ( TigerSwitch 10G 8-Port Standalone XFP 10Gigabit Ethernet Managed Layer 2 Switch SMC Networks, Inc. Node 1 Node 2 Node 3 12 XFP Transceiver PCI-E x8 or x16 bus

 ping  Used as a latency measurement tool  iperf  Bandwidth measurement tool  tcpdump  Packet capture program  Scripts  Scripts will control and execute programs according to test specifications  Other  C++ program used to analyze results 13

 Bandwidth  Compare link usage for each node under varying workload types  Bandwidth Efficiency  Show a comparison of the amount of OSI Layer 1 data sent for different OSI Layer 7 data block sizes  Latency  Compare the latency between nodes under different network loads 14

 Switching Time  Compare switching time and link load for cases when 2 and 3 nodes are connected to the network  Quality of Service  Show the amount data received from each sending node for each endpoint node over time 15

 30 iperf runs ◦ Command Line: iperf -p c  Max: 1.39  Min: 1.38  Avg:  Standard Deviation:  99% Confidence Interval: [ , ] 16

17

 1000 ping runs ◦ ping -c  Max: ms  Min: ms  Avg:  Standard Deviation:  99% Confidence Interval: [ , ] 18

ResourceQuantityEstimated CostActual Cost Optical NICs3$3000$ XFP Switch1$6500N/A XFP Transceiver6$3720$2700 Fiber optic cables3$240$ Host System3$500Department Systems 1 Total$13960$ ISU ECpE Department’s update of the Senior Design lab may cover this cost 2 $10 Shipping charge for NICs and Transceivers added to total 19

20 Personnel Meetings Research Design Implementation Testing and Debugging Documentation Website Totals Adam Bader Nick David Richard Total

21 Personnel Meetings Research Design Implementation Testing and Debugging Documentation Website Totals Adam Bader Nick David Richard Total Summary of Individual Hours

Estimated Percent Completion Budgeted Hours Budgeted Hours Completed Meetings100%400 Research95%10095 Design100%40 Implementation95% Testing75% Documentation95% Website97% Table used to calculate Budgeted Cost of Work Performed

23  Budgeted Cost of Work Scheduled: 862 scheduled hours * $10 per hour = $8,620  Actual Cost of Work Performed: actual hours * $10 per hour = $6,  Budgeted Cost of Work Performed: scheduled hours * $10 per hour = $8,002.50

 Cost Variance $8, $6,735 = $1,267.5 Under budget  Cost Performance Index $8,002.5 / $6,735 = Under budget  Schedule Variance $8, $8,620 = $ Behind schedule  Schedule Performance Index $8,002.5 / $8,620 = Behind schedule 24

 Researched 10 Gbps network architectures  Completed test scripts  Completed analysis scripts and programs  Executed copper tests and analyzed results  Executed limited fiber optic tests 25

 Unable to obtain fiber optic switch  PCI-E slot not fully compliant ◦ First system ran at x1 ◦ Second system was graphics only 26

 How to coordinate buying components with various groups.  Prepare for unexpected sources of error.  Fully research the technologies before we use them. 27

 Creating an affordable fiber optic network is feasible.  Copper results illustrate proof of concept on testing approach.  Preliminary results using PCI-E x1 speeds show that bandwidth efficiency is poor unless parameters are changed. 28

? 29