1 match IP Src = 10.3.*.* IP Dst= 10.2.*.* match ingress port = 1 IP Src = 10.3. IP Dst = 10.2.*.* OpenFlow Example: datagrams from hosts h5 and h6 should be sent to h3 or h4, via s1 and from there to s2 action forward(3) Figure 1: Traffic Engineering with Open Flow Figure 1 reveals a network where the traffic flowing from the first host which is attached to router u to the server which is attached to router z needs to be routed along the path u,v,w,z while the traffic flowing from the second host attached to router x router to the server which is attached to router z needs to be routed along the path x,w,y,z. Please describe the local flow table of each of the switches u,v,x,w,y,z (in terms of match and action rules) to enable the routing of the two traffic flows according to the constraints described above. The following IP addresses will be used for the two hosts and the server. • The first host belongs to the subnetwork 10.1.0.0/16. It is attached to router U and has an IP address of 10.1.0.1 • The second host belongs to subnetwork 10.5.0.0/16. It is attached to router X and has an IP address of 10.5.0.1 The server belongs to the subnetwork 10.11.0.0/16. It is attached to router Z and has an IP address of 10.11.0.1 Note that you can build upon the open flow example at the end of chapter 4 to answer to this question. The example is presented below. Host h5 10.3.0.5 5 Host h1 10.1.0.1 2 action forward(4) 1 Host h6 10.3.0.6 $3 Host h2 10.1.0.2 controller 5 Host h3 10.2.0.3 2 Host h4 10.2.0.4 match ingress port = 2 IP Dst 10.2.0.3 ingress port = 2 IP Dst= 10.2.0.4 action forward(3) forward(4)
1 match IP Src = 10.3.*.* IP Dst= 10.2.*.* match ingress port = 1 IP Src = 10.3. IP Dst = 10.2.*.* OpenFlow Example: datagrams from hosts h5 and h6 should be sent to h3 or h4, via s1 and from there to s2 action forward(3) Figure 1: Traffic Engineering with Open Flow Figure 1 reveals a network where the traffic flowing from the first host which is attached to router u to the server which is attached to router z needs to be routed along the path u,v,w,z while the traffic flowing from the second host attached to router x router to the server which is attached to router z needs to be routed along the path x,w,y,z. Please describe the local flow table of each of the switches u,v,x,w,y,z (in terms of match and action rules) to enable the routing of the two traffic flows according to the constraints described above. The following IP addresses will be used for the two hosts and the server. • The first host belongs to the subnetwork 10.1.0.0/16. It is attached to router U and has an IP address of 10.1.0.1 • The second host belongs to subnetwork 10.5.0.0/16. It is attached to router X and has an IP address of 10.5.0.1 The server belongs to the subnetwork 10.11.0.0/16. It is attached to router Z and has an IP address of 10.11.0.1 Note that you can build upon the open flow example at the end of chapter 4 to answer to this question. The example is presented below. Host h5 10.3.0.5 5 Host h1 10.1.0.1 2 action forward(4) 1 Host h6 10.3.0.6 $3 Host h2 10.1.0.2 controller 5 Host h3 10.2.0.3 2 Host h4 10.2.0.4 match ingress port = 2 IP Dst 10.2.0.3 ingress port = 2 IP Dst= 10.2.0.4 action forward(3) forward(4)
Database System Concepts
7th Edition
ISBN:9780078022159
Author:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan
Publisher:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan
Chapter1: Introduction
Section: Chapter Questions
Problem 1PE
Related questions
Question
Transcribed Image Text:match
IP Src = 10.3.*.*
IP Dst = 10.2.*.*
match
ingress port = 1
IP Src = 10.3.*.*
IP Dst = 10.2.*.*
action
forward(3)
5
Figure 1: Traffic Engineering with Open Flow
Figure 1 reveals a network where the traffic flowing from the first host which is attached to router u to the
server which is attached to router z needs to be routed along the path u,v,w,z while the traffic flowing from the
second host attached to router x router to the server which is attached to router z needs to be routed along the
path x,w,y,z. Please describe the local flow table of each of the switches u,v,x,w,y,z (in terms of match and
action rules) to enable the routing of the two traffic flows according to the constraints described above. The
following IP addresses will be used for the two hosts and the server.
• The first host belongs to the subnetwork 10.1.0.0/16. It is attached to router U and has an IP address of
10.1.0.1
OpenFlow Example:
datagrams from hosts h5 and h6 should be
sent to h3 or h4, via s1 and from there to s2
Host h5
10.3.0.5
2
•
The second host belongs to subnetwork 10.5.0.0/16. It is attached to router X and has an IP address of
10.5.0.1
The server belongs to the subnetwork 10.11.0.0/16. It is attached to router Z and has an IP address of
10.11.0.1
Note that you can build upon the open flow example at the end of chapter 4 to answer to this question. The
example is presented below.
Host h1
10.1.0.1
action
forward(4)
1
Host h6
10.3.0.6
s3
1
Host h2
10.1.0.2
5
OpenFlow
controller
Host h3
10.2.0.3
2
Host h4
10.2.0.4
match
ingress port = 2
IP Dst 10.2.0.3
ingress port = 2
IP Dst = 10.2.0.4
action
forward(3)
forward(4)
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