Le SDN et NFV sont très à la mode en ce moment car en passant des appliance physiques aux équipement réseau massivement logiciel, celà devrait offrir une grande flexibilité et agilité aux entreprises (et telco en particulier). Néanmoins chainer des services réseau est un exercice encore très complexe et ce document vous explique ce qu'il est déjà possible de faire sur OpenStack en couplant par exemple : un load balancer (BigIP), un Firewall (BigIP), un réseau virtuel WAN (RiverBed) ou encore un routeur virtuel (Brocade).
Cloud Frontiers: A Deep Dive into Serverless Spatial Data and FME
SDN/NFV: Service Chaining
1. 1
Make the Future with China!
Enabling Deployment of Software Defined
Networks and Network Function Virtualization
in 2015
Vivien Yang – Platform Solution Architect, Intel Corporation
Christian, Buerger – Technologist, Intel Corporation
DATS003
2. 2
Agenda
• SDN/NFV Landscape
• Intel Strategy
• Technical Discussion on Service Chaining with Intel® Open Network Platform
• Summary
• Next Steps / Additional Information/ Q&A
3. 3
Agenda
• SDN/NFV Landscape
• Intel Strategy
• Technical Discussion on Service Chaining with Intel® Open Network Platform
• Summary
• Next Steps / Additional Information/ Q&A
4. 4
Transformation Necessary to Keep Pace With our
Rapidly Changing World
1. Estimate from Cisco* Visual Networking Index Mobile, 2. Cisco Visual Networking Index: Global Mobile Data Traffic Forecast Update, 2013-2018. Feb. 2014
More
Agility
More
Mobility
More Efficiency
and Cost Cutting
More Data
Access 24/7
More Compliance
and Regulations
mobile devices in
workplace by 201611.62 billion the data traffic
by 201823X
5. 5
Transforming Today’s Infrastructure:
A Software-Defined Future
Systems
App
App AA
Systems
Virtualization
S
1
S
2
S
6
4
…
A A A AA A A
Orchestration
Traditional Virtualized Cloud (A)
Orchestration
HyperScale Cloud (B)
V V V
v
p p p p
p p p
p
p
v
p
1. Multi-tenant
2. Rapid elasticity
3. Self-service
4. Measured services
5. Resource pooling
1. Highly optimized
2. Highly efficient
3. Managed cross-cloud
4. HeterogeneousNote: Not all clouds require virtualization
Resource
Pool
Resource
Pool
…
…
… v
p p p p
p p p
p
p
v
p
A A A AA A A…
Multiple computing models will persist for foreseeable future
6. 6
NFV
Management/
Orchestration
SDN and NFV are Driving Network Transformation
To This…
VM:
vFW
VM:
vIDS
From This…
Intrusion
Detection
System
x86 CPU
Chipset
Acceleration
Switch
Silicon
NIC
Silicon
Open Source
& Standards
TEM/OEM
Proprietary OS
ASIC, DSP,
FPGA, ASSP
Firewall VM:
vEPC
VM:
vRouter
SDN/NFV Infrastructure
EPCRouter
Enabling the Server to Become the New Networking Platform
7. 7
SDN/NFV Transformation is Happening Today
But Key Challenges Still Remain…
Technology
Immature
Multi-Vendor
Interoperability
TCO
Business Case …
Open Standards and
Source Emerging
Source: GIGAOM Survey March 19, 2014
8. 8
Agenda
• SDN/NFV Landscape
• Intel Strategy
• Technical Discussion on Service Chaining with Intel® Open Network Platform
• Summary
• Next Steps / Additional Information/ Q&A
9. 9
Intel is Accelerating the Transformation
Intel®ONP
Telecom, Cloud,
Enterprise
Industry Consortia
Intel®Network
Builders
Advance Open Source and Standards
Deliver Open Reference Designs
Enable Broad Open Ecosystem on
Intel® Architecture
Collaborate on Trials and Deployments
Intel® Open Network Platform (Intel® ONP)
10. 10
10
Intel® ONP Server Reference Architecture
Intel® Xeon™
processor
E5 v3
Intel®
Communications
Chipset 89xx Series
Intel® Ethernet
Controller
XL710
Open Source Software Stack
Based on ETSI-NFVI Reference Architecture
Intel® QuickAssist Technology Drivers
Intel® Ethernet Drivers:10 & 40 GbE
Linux* Fedora OS
KVM Hypervisor
Data Plane Development Kit
Open vSwitch*
OpenStack* Cloud OS
OpenDaylight* Controller
Industry Standard High Volume Server
What is it?
• SDN/NFV server reference architecture bringing together
hardware and open source software ingredients
• A vehicle to drive development and to showcase server
solutions for SDN/NFV based on Intel® Architecture
Who is the target audience?
• TEMs, OEMs, ODMs, ISVs, OSVs
• Telecommunications SPs, Cloud SPs, Enterprise IT
Where can you get it?
• 01.org (quarterly releases)
What is included?
• Open source software stack
• Reference Architecture Guide (scripts, scenarios, etc…)
• Benchmark Test ReportVM
VIRTUAL
SWITCH
HW
OFFLOAD
LINUX/
KVM
DPDK
Intel® Open Network Platform (Intel® ONP)
11. 11
Intel® Open Network Platform Server Roadmap
Note: Roadmap subject to change without prior notice.
Planning
DPDK
1.0
Juno 2014 2.2 Kilo
Helium.1 Helium.2
2.3.1 2.4
1.7.1 1.8
Fedora* 21
1.6 1.6
Linux* OS
Intel®QuickAssist Technology
Intel® Xeon™ processor E5 v3
Intel® Ethernet
Controller XL710
Intel® Communications
Chipset 89xx Series
Intel® Xeon™ processor E5 v3
Intel® Ethernet
Controller XL710
Intel® Communications
Chipset 89xx Series
Fedora 21
February 2015
Release 1.3
May 2015
Release 1.4
Intel®ONP Server
Workload vBNG vCPE
Released
Quarterly
Releases
Future…
Intel® Open Network Platform (Intel® ONP)
Data Plane Development Kit (DPDK)
12. 12
Agenda
• SDN/NFV Landscape
• Intel Strategy
• Technical Discussion on Service Chaining with Intel® Open Network Platform
• Summary
• Next Steps / Additional Information/ Q&A
13. 13
Technical Discussion on Service Chaining with Intel® ONP
• Demonstration: Multi-vendor Service Chain on Intel® ONP
• Demonstration: 40G/100GbE NSH Service Chaining on Intel® ONP
• Case Study: China Telecom NFV Smartpipe on Intel® ONP
Network Services Header (NSH); Intel® Open Network Platform (Intel® ONP)
14. 14
Demo: Service Chain on Intel® ONP Sever
BIG IP
Virtual Load
Balancer
BIG IP
Virtual
Firewall
Steelhead Vyatta 5600
Virtual
Router
Virtual WAN
Using virtual appliances, instead of
fixed function physical appliances
Brocade* vRouter 5600
F5 vFW and vADC
Riverbed* vWAN
Open Source / Standard
Based Solution from Red Hat*
OpenStack* Icehouse
OpenDaylight Hydrogen
QCT server based on Intel® ONP
(Fedora*, KVM, Open vSwitch, DPDK)
Enabling scalability, automated provisioning, increased agility and
more efficient network operation leading to improved TCO
Intel® Open Network Platform (Intel® ONP); Data Plane Development Kit (DPDK)
15. 15
A Typical Service Chain
• Vendors may change, for example, use Riverbed* Stingray instead of F5 Big-IP
• In addition to web servers, FTP Servers, SharePoint*, etc.
• Using virtual appliances, instead of the physical hardware
- Advantage: Scalability, lower OPEXCAPEX, flexibility and central control
16. 16
OpenStack*
• Create Networks
• Create VMs on the available hosts
• Connect the networks according to IT plan
• Configure services from key vendors
OpenDaylight
• Configure flows between VMs
Orchestration and Management:
with OpenStack* and OpenDaylight*
17. 17
Technical Discussion on Service Chaining with Intel® ONP
• Demonstration: Multi-vendor Service Chain on Intel® ONP
• Demonstration: 40G/100GbE NSH Service Chaining on Intel® ONP
• Case Study: China Telecom NFV Smartpipe on Intel® ONP
Network Services Header (NSH); Intel® Open Network Platform (Intel® ONP)
18. 18
Case Study: 40G/100GbE NSH Service Chaining on Intel® ONP
• Industry leading Service Function Forwarding Using NSH
- Line rate 40GbE using the Intel® Ethernet Controller XL710
- Line rate 100GbE using next generation Intel® Ethernet
100Gb SDI Adapter on a server platform
• Demonstrates NSH service chaining with Intel® ONP
- Multi-vendor demo including Cisco* UCS servers and
services from F5* & Citrix*
• Uses OpenDaylight* to generate service chains
- Intel, a founding member of OpenDaylight, is now a
Platinum Member
Network Services Header (NSH); Intel® Open Network Platform (Intel® ONP)
Half Rack Demo System
• One Intel® Xeon™ processor E5 v3
based server with 40GbE and
100GbE ports
• One Intel® Xeon™ processor E5 v3
based server with 40GbE ports
• One Cisco UCS server C240-W3S
with 40GbE ports
• Cisco UCS Switch (3016Q-40GE)
19. 19
Service Chain Orchestration using OpenDaylight*
OpenDaylight* Window
• Shows the service
chaining control plane
Packet Capture Windows
Shows the mechanics of
moving traffic through the
service chain
20. 20
Blue
VM
High Bandwidth Service Chaining Performance
WAN
OpenDaylight* Service Function Chaining (SFC)
From WAN to DC Service Chain = (dpi, firewall, nat)
From DC to WAN Service Chain = (nat)
Data Center
RED
Tenant
Blue
Tenant
100G
Traffic
Generator Red
VM
Red
VM
Blue
VM
Red
VM
Red
VM
Blue
VM
Red
VM
Red
VM
dpi
nat
100G Intel® ONP Server
40G Intel® ONP Server
Cisco* UCS Server
VXLAN-
GPE
Network
Cisco* 40G Switch
100G
40G
100G 40G
40G
FW 40G
Live bandwidth statistics
• 100Gb traffic is classified and encapsulated in hardware
• 40Gb traffic is forwarded to the other servers based on
the NSH service chaining header
Network Services Header (NSH); Intel® Open Network Platform (Intel® ONP)
21. 21
Technical Discussion on Service Chaining with Intel® ONP
• Demonstration: Multi-vendor Service Chain on Intel® ONP
• Demonstration: 40G/100GbE NSH Service Chaining on Intel® ONP
• Case Study: China Telecom NFV Smartpipe on Intel® ONP
Network Services Header (NSH); Intel® Open Network Platform (Intel® ONP)
22. 22
Case Study: China Telecom NFV Smartpipe on Intel® ONP
Problem Statement:
• Carrier Grade Service Function Chaining requires:
- Process heavy IP Edge user session
- Services provisioning, redundancy, upgrade
- Scalable Packet processing performance
- Resources pool monitoring, troubleshooting
• Current IP Edge solution landscape:
- Lack of multi levels flow table & programmable capability
- Lack of services feature, long development cycle
- Lack of flexibility and interoperability
- Single blade performance limitation
Proprietary BladeBRAS Infra
Intel® Open Network Platform (Intel® ONP)
23. 23
Case Study: China Telecom NFV Smartpipe on Intel® ONP
IDCAccessRG
Enterprise GW
BRAS/SR
MAN
ChinaNet
CN2
App
App
App
vBNG Service chaining
What does it do?
• China Telecom and Intel jointly developed a PoC for Smartpipe with Programmable
Forwarding capability, based on Intel® ONP
• vBNG virtualize part of the function at IP Edge, with Service Function Chaining
implementation
• Plan for commercial trial in China Telecom Guangdong province
BRAS Infra
vBNG X86 server
resources pool
24. 24
Case Study: China Telecom NFV Smartpipe on Intel® ONP
China Telecom Open Networking Platform based on open source software solutions (e.g.
OpenStack*, OpenDaylight, Open vSwitch, DPDK)
• Developed Open Source based Service Control platform (SCP) for reprogrammable &
management – service path, chain performance, user session management
• Developed necessary controller, orchestration, OSS/BSS layer software build blocks
• Performance optimization with DPDK
• Demonstrates Programmable Function capability
BRAS/SR/vBNG core router
SC Network
PON/DSL/Eth
IP/MPLS
Backbone
Network Controller
(OpenDaylight)
Cloud Manager
(OpenStack)
AAA
ServerOSS
Service Control
Platform
Service Provisioning
Subscriber Profile
Policy Control UI Portal
MAN
Infrastructure Layer
Network Control Layer
Service Control
LayerPolicy-based Service Control
Model-driven SC controller
DPDK fast forwarding Plane
Key Technology
25. 25
Case Study: China Telecom NFV Smartpipe on Intel® ONP
Southbound Plugins
OpenDaylight
Radius
Server
Web
Portal
Internet
vBRAS
vFW …..
Policy
Manager
SFC
Scheduler
Programmable Forwarding
Packet
with
NSH
header
OpenDaylight APIs (REST)
Demo Showcasing
• DPDK accelerated
vSwitch and virtual
network functions:
vBRAS, vDPI, vFW
• ODL extension: Policy-
driven dynamic SFC
scheduling and
Programmable
Forwarding controller
• NSH and VxLAN-GPE
encap/decap/forward
support controlled by
PF controller
NETCONF
DPDK
Accelerated PFS
vDPI …..
DPDK
Accelerated PFS
SFC Classifier
(DPDK Accelerated PFS)
Packet
with
NSH
header
Network Services Header (NSH); Intel®
Open Network Platform (Intel® ONP)
26. 26
Case Study: China Telecom NFV Smartpipe on Intel® ONP
Technology Innovation Highlights
1. China first IP intelligent edge service function chaining
implementation
• Based on user session management capability
• Cover ETSI NFV MANO key features
2. Provide x86 based high performance SC packet forwarding
architecture
• Based on DPDK end-to-end data path
• High performance Open vSwitch (OvS)
3. Reprogrammable software based packet forwarding architecture,
support flexible services provisioning
• Support different network protocol
• Support meta data integrate with user data encrypted in WAN transport
4. Specialize high performance module integrate with Service
Chaining
• Computing and Networking resources load balancing
• Provide service path for broader Apps development, increase network
bandwidth
5. Policy Controller module for resources pool automation
• Based on YANG management model, heterogeneous resources unified
management
②③
④
⑤
① ①
Intel® Open Network Platform (Intel® ONP)
27. 27
Agenda
• SDN/NFV Landscape
• Intel Strategy
• Technical Discussion on Service Chaining with Intel® Open Network Platform
• Summary
• Next Steps / Additional Information/ Q&A
28. 28
Intel is Accelerating the SDN/NFV Transformation
Develop “Best in Class” SDN/NFV Solutions based on
Intel® Open Network Platform
Summary
29. 29
Agenda
• SDN/NFV Landscape
• Intel Strategy
• Technical Discussion on Service Chaining with Intel® Open Network Platform
• Summary
• Next Steps / Additional Information/ Q&A
30. 30
Download and Evaluate Intel® ONP Server Reference Architecture
https://01.org/packet-processing/intel%C2%AE-onp-servers
Evaluate Key Ingredients in Service Chaining
NSH: https://tools.ietf.org/html/draft-quinn-sfc-nsh-07
DPDK: www.dpdk.org
Join the Intel® Network Builders SDN/NFV Ecosystem
https://networkbuilders.intel.com/
Next Steps
Network Services Header (NSH); Intel® Open Network Platform (Intel® ONP); Data Plane Development Kit (DPDK)
31. 31
Additional Sources of Information
• A PDF of this presentation is available from our Technical Session Catalog: ww.intel.com/idfsessionsSZ.
- This URL is also printed on the top of Session Agenda Pages in the Pocket Guide.
• Demos in the showcase – check out the Data Center Community and Intel® Network Builders Community
Collateral Link/ Pointer
Intel® Network Builders http://networkbuilders.Intel®.com/
NFV Architectural Framework – described by ETSI* http://www.etsi.org/deliver/etsi_gs/NFV/001_099/002/01.01.01_60/gs_NFV002v0
10101p.pdf
Intel® ONP Server Reference Architecture https://01.org/packet-processing/intel%C2%AE-onp-servers
ETSI* whitepaper (NFV use cases for Telco) http://portal.etsi.org/nfv/nfv_white_paper.pdf
Intel® IT whitepaper (Adopting SDN in the Enterprise) http://www.intel.com/content/www/us/en/it-management/intel-it-best-
practices/adopting-software-defined-networking-in-the-enterprise-
paper.html?wapkw=rungta
OpenStack* Installation Guide http://docs.openstack.org/havana/install-guide/install/apt/openstack-install-
guide-apt-havana.pdf
Data Plane Development Kit www.dpdk.org
Apache 2.0 License http://www.apache.org/licenses/LICENSE-2.0.html
Network Services Header https://tools.ietf.org/html/draft-quinn-sfc-nsh-07
32. 32
Other Technical Sessions
Session ID Title Day Time Room
DATS001 Hyper–Evolution to the Software Defined Infrastructure Wed 13:15-14:15 Wu
DATS003
Enabling Deployment of Software Defined Networks and Network
Function Virtualization in 2015
Thurs 13:15-14:15 Jing
DATC004
Poster Chat: UnitedStack’s “Cloud-in-a-Box” – Best Practice of
Building a OpenStack
*
Public / Managed Private Cloud on Top of
Intel® Technologies
Thurs 13:00-15:00
Poster
Chat
Station 1
DATC005
Poster Chat: Discover the Benefits of Developing Applications on
Software Defined Infrastructure Enabled Cloud Architecture
Thurs 13:00-15:00
Poster
Chat
Station 2
= DONE
34. 34
Risk Factors
The above statements and any others in this document that refer to plans and expectations for the first quarter, the year and the future are forward-
looking statements that involve a number of risks and uncertainties. Words such as "anticipates," "expects," "intends," "plans," "believes," "seeks,"
"estimates," "may," "will," "should" and their variations identify forward-looking statements. Statements that refer to or are based on projections,
uncertain events or assumptions also identify forward-looking statements. Many factors could affect Intel's actual results, and variances from Intel's
current expectations regarding such factors could cause actual results to differ materially from those expressed in these forward-looking statements.
Intel presently considers the following to be important factors that could cause actual results to differ materially from the company's expectations.
Demand for Intel’s products is highly variable and could differ from expectations due to factors including changes in the business and economic
conditions; consumer confidence or income levels; customer acceptance of Intel’s and competitors’ products; competitive and pricing pressures,
including actions taken by competitors; supply constraints and other disruptions affecting customers; changes in customer order patterns including
order cancellations; and changes in the level of inventory at customers. Intel’s gross margin percentage could vary significantly from expectations based
on capacity utilization; variations in inventory valuation, including variations related to the timing of qualifying products for sale; changes in revenue
levels; segment product mix; the timing and execution of the manufacturing ramp and associated costs; excess or obsolete inventory; changes in unit
costs; defects or disruptions in the supply of materials or resources; and product manufacturing quality/yields. Variations in gross margin may also be
caused by the timing of Intel product introductions and related expenses, including marketing expenses, and Intel’s ability to respond quickly to
technological developments and to introduce new features into existing products, which may result in restructuring and asset impairment charges.
Intel's results could be affected by adverse economic, social, political and physical/infrastructure conditions in countries where Intel, its customers or its
suppliers operate, including military conflict and other security risks, natural disasters, infrastructure disruptions, health concerns and fluctuations in
currency exchange rates. Results may also be affected by the formal or informal imposition by countries of new or revised export and/or import and
doing-business regulations, which could be changed without prior notice. Intel operates in highly competitive industries and its operations have high
costs that are either fixed or difficult to reduce in the short term. The amount, timing and execution of Intel’s stock repurchase program and dividend
program could be affected by changes in Intel’s priorities for the use of cash, such as operational spending, capital spending, acquisitions, and as a result
of changes to Intel’s cash flows and changes in tax laws. Product defects or errata (deviations from published specifications) may adversely impact our
expenses, revenues and reputation. Intel’s results could be affected by litigation or regulatory matters involving intellectual property, stockholder,
consumer, antitrust, disclosure and other issues. An unfavorable ruling could include monetary damages or an injunction prohibiting Intel from
manufacturing or selling one or more products, precluding particular business practices, impacting Intel’s ability to design its products, or requiring
other remedies such as compulsory licensing of intellectual property. Intel’s results may be affected by the timing of closing of acquisitions, divestitures
and other significant transactions. A detailed discussion of these and other factors that could affect Intel’s results is included in Intel’s SEC filings,
including the company’s most recent reports on Form 10-Q, Form 10-K and earnings release.
Rev. 1/15/15
36. 36
• Open source code programming libraries that
accelerate basic data plane functions for Intel®
processors for fast packet processing developed by
Intel and available at www.dpdk.org
• Key DPDK elements :
- Buffer and memory management
- Queue management
- Packet flow classification libraries
- Poll mode drivers for network interface cards (NICs)
• Environment Abstraction Layer (EAL) – Provides a
lightweight run-time environment in user space to
DPDK applications, that by-passes some unnecessary
calls to OS kernel
Data Plane Development Kit (DPDK):
What is it and where can I get it?
Source:
https://embedded.communities.intel.com/community/en/software/
blog/2013/05/16/roving-reporter-dpdk-goes-open-source
Intel® Architecture (IA)
DPDK Libraries
37. 37
Enabling Broad Open SDN/NFV Ecosystem
on Intel® Architecture
Network Applications
Controller
Orchestrator
Node:
Server, Switch
Reference Architectures
Intel®ONP Server
Intel ONP Switch Software
120+ Partners Accelerating a Broad Ecosystem of SDN/NFV Solutions on
Intel® Architecture for Telecommunications, Cloud and Enterprise
Intel® Open Network Platform (Intel® ONP)
38. 38
How does the Intel® Network Builders Program Work?
• By invitation;
online application
• Partner presence
page & Logo
Join
• Proactive
promotion
• Outbound
marketing
Promote
• Solution match
making
GTM
• Join by invitation
• When Partners join the program, they are provided a microsite on the Intel®Network Builders website
• Co-marketing/promotion benefits are available only if there is a reference architecture
https://networkbuilders.intel.com/
• Create a reference
architecture
• Post on online
library
Collaborate
Program partner companies working together to develop SDN/NFV Solutions
39. 39
OpenStack*
• OpenStack* is a free and open-source cloud computing software platform
• Open source cloud operating system
• Infrastructure as a service (IaaS) solution
• Controls resources (compute/storage/network) at data center level
• Licensed under the open source Apache* 2.0 license
• Typical uses:
- Setting up a test environment
- Large scale Service Provider offering
- Large scale Web Applications
• For more info refer www.openstack.org
41. 41
Basic Architecture with OpenStack* Networking (Neutron)
Source : http://docs.openstack.org/havana/install-guide/install/apt/content/ch_overview.html
• Neutron : enables network
connectivity as a service for
other Openstack* services
such as Openstack Compute
42. 42
Service Chain Initial Set up
Enable Virtualization in BIOS
Install Fedora* 20 and update the kernel
Modify the answerfile with necessary IP and network Interface
configurations
Disable Firewall and Enable SSH
Download and Install Packstack
Stop the Network Manager and start the network service
43. 43
OpenStack* Set up
Create images for WebServer, Load Balancer and WAN Accelerator
Create a management, external and private networks
Add new security for ingress and egress rules for all types of TCP,
ICMP, and UDP
Create flavors for WebServer, Load Balancer and WAN Accelerator
Test the generic router
44. 44
Brocade* Vyatta* 5600 vRouter Creation
Copy the Vyatta* router plugin tar file
(icehouse_vyatta_l3_daisy_plugin.tar.gz) to the controller
Edit neutron-server.service in /usr/lib/systemd/system/ to be able
to use the vrouter.ini file as config file
Edit /etc/neutron/plugins/brocade/vyatta/vrouter.ini on the
controller node to include the details of set up
Restart the Services and create Vyatta Router in OpenStack* and
set the public gateway
Create Apache*, BIG-IP, Management, Client networks and add
these private network interfaces to the Vyatta router
45. 45
Creating and Testing a Web Server
Create a Web server instance with Apache* and Mgmt network
Edit /etc/httpd/conf/httpd.conf: change the IP for <listen> to have
Apache Interface IP
Start httpd and sshd services
Allocate and assign a floating IP for the private instance of the Web
server.
Check if the Web server is functioning from the external browser
46. 46
Creating and Configuring a WAN Accelerator Instance
Create a WAN Accelerator instance with the network configurations
in the following order:
Secondary management, Client, Apache* and Data
Log in the VM instance to run
#configuration jump-start
Configure various parameters like hostname, Inpath IP as Apache Nw
IP, Gateway IP etc.,
Check if #show service is running
47. 47
Creating and Configuring a LoadBalancer Instance
Launch a LB instance with the networks in the following order:
Management, Apache*, Client, Data
Activate the license of VM if any
Configure various parameters like hostname, root password etc., and
reboot the image
Configure VLANs- Apache, Client and Data
48. 48
Creating and Configuring a LoadBalancer Instance
(continued)
Configure Self-IPs
Create Pools and add the WebServers created into this pool
Create SNAT Pool list for Address Translation
Assign a floating IP to the client and data network of LB instance
Check the Web browser: http://<floatingIP_of_LB>
Create Virtual Servers. In the “Destination” field, enter the Client
Network IP of the LB instance from OpenStack*.