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Getting Started with NetScaler
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Solutions for Telecom Service Providers
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Load Balance Control-Plane Traffic that is based on Diameter, SIP, and SMPP Protocols
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Provide Subscriber Load Distribution Using GSLB Across Core-Networks of a Telecom Service Provider
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Authentication, authorization, and auditing application traffic
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Basic components of authentication, authorization, and auditing configuration
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Web proxy support for outbound calls to IDP or third party endpoints
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Web Application Firewall protection for VPN virtual servers and authentication virtual servers
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On-premises NetScaler Gateway as an identity provider to Citrix Cloud™
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Authentication, authorization, and auditing configuration for commonly used protocols
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Troubleshoot authentication and authorization related issues
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Troubleshoot authentication, authorization and auditing issues
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Configure EULA as an authentication factor in NetScaler nFactor system
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Configure periodic Endpoint Analysis scan as a factor in nFactor authentication
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Configure post-authentication Endpoint Analysis scan as a factor in NetScaler nFactor authentication
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Configure pre-authentication Endpoint Analysis scan as a factor in nFactor authentication
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Configure pre-auth and post-auth EPA scan as a factor in nFactor authentication
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Configure prefill user name from certificate in NetScaler nFactor authentication
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Configure protected user as an authentication factor in NetScaler nFactor authentication
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Localize error messages generated by NetScaler nFactor system
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Configure NetScaler Gateway preauthentication EPA scan for the domain check
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Configure DNS resource records
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Configure NetScaler as a non-validating security aware stub-resolver
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Jumbo frames support for DNS to handle responses of large sizes
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Caching of EDNS0 client subnet data when the NetScaler appliance is in proxy mode
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Use case - configure the automatic DNSSEC key management feature
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Use Case - configure the automatic DNSSEC key management on GSLB deployment
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Source IP address whitelisting for GSLB communication channels
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Use case: Deployment of domain name based autoscale service group
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Use case: Deployment of IP address based autoscale service group
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Persistence and persistent connections
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Advanced load balancing settings
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Gradually stepping up the load on a new service with virtual server–level slow start
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Protect applications on protected servers against traffic surges
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Retrieve location details from user IP address using geolocation database
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Use source IP address of the client when connecting to the server
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Use client source IP address for backend communication in a v4-v6 load balancing configuration
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Set a limit on number of requests per connection to the server
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Configure automatic state transition based on percentage health of bound services
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Use case 2: Configure rule based persistence based on a name-value pair in a TCP byte stream
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Use case 3: Configure load balancing in direct server return mode
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Use case 6: Configure load balancing in DSR mode for IPv6 networks by using the TOS field
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Use case 7: Configure load balancing in DSR mode by using IP Over IP
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Use case 10: Load balancing of intrusion detection system servers
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Use case 11: Isolating network traffic using listen policies
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Use case 12: Configure Citrix Virtual Desktops for load balancing
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Use case 13: Configure Citrix Virtual Apps and Desktops for load balancing
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Use case 14: ShareFile wizard for load balancing Citrix ShareFile
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Use case 15: Configure layer 4 load balancing on the NetScaler appliance
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Support for hybrid Post Quantum cryptography on the frontend
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Create a certificate signing request and use SSL certificates on a NetScaler appliance
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Configure SSL acceleration with HTTP on the front end and SSL on the back end
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Export certificates used on a NetScaler appliance as PFX file
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Configure SSL monitoring when client authentication is enabled on the back-end service
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Configure SSL action to forward client traffic if a cipher is not supported on the ADC
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Configure synchronization of files in a high availability setup
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Authentication and authorization for System Users
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Configuring a CloudBridge Connector Tunnel between two Datacenters
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Configuring CloudBridge Connector between Datacenter and AWS Cloud
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Configuring a CloudBridge Connector Tunnel Between a Datacenter and Azure Cloud
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Configuring CloudBridge Connector Tunnel between Datacenter and SoftLayer Enterprise Cloud
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Configuring a CloudBridge Connector Tunnel Between a NetScaler Appliance and Cisco IOS Device
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CloudBridge Connector Tunnel Diagnostics and Troubleshooting
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Redundant Interface Set
Note
Link redundancy configuration is not supported on a NetScaler VPX instance hosted on a NetScaler SDX appliance.
A redundant interface set is a set of interfaces where one of the interfaces is active and the remaining ones are standby. If the active interface fails, one of the standby interfaces takes over and becomes active.
The following are the main benefits of using redundant interface sets:
- A redundant interface set ensures connection reliability between the NetScaler appliance and a peer device by providing backup links between them.
- Unlike link redundancy using LACP, no configuration is required on the peer device for a redundant interface set. To the peer device, the redundant interface set appear as individual interfaces and not as a set or collection.
- In a high availability configuration (HA), redundant interface sets can minimize the number the HA failovers.
Note
Redundant Interface Set was formerly known as ‘NIC bundling’ when first introduced in 10.5 release.
How a Redundant Interface Set Works
For a redundant interface set, the NetScaler appliance derives a MAC address based on an internal algorithm and assigns it to the redundant interface set. This MAC address is shared by all the member interfaces and is used only by the active interface at a time. The active interface broadcasts GARP messages, which contain the MAC address assigned to the redundant interface set and not the interface’s own physical MAC address. When the current active interface fails and is taken over by another interface, the new active interface sends GARP messages. The peer device updates its forwarding table with the new active interface information. The standby interfaces do not send any GARP messages. The standby interfaces do not send any packets and they drop any packets they receive.
In a redundant interface set, selection of the member interface as active is based on either of the following factors:
- Redundant interface priority. This is a parameter of an interface and it defines the priority of the interface in a redundant interface set for the active member selection. This parameter specifies a positive integer. Lower the value higher the priority of active member selection. The member interface with the highest priority (lowest value) is selected as the active interface of the redundant interface set.
- Binding order of the member interfaces. If all the member interfaces have the same redundant interface priority, the member interface that was bound first to the redundant interface set is selected as the active interface of the redundant interface set.
In a redundant interface set, active interface selection is triggered in one of the following events:
- When the current active interface fails or you disable it.
- When you set the priority of a standby interface to a value lower than that of the current active interface. The standby interface takes over as the active interface.
- When you bind an interface whose priority is lower than that of the current active interface. The newly bound interface takes over as the active interface.
Points to Consider for Configuring Redundant Interface Sets
Consider the following points before you configure a redundant interface set:
- In a standalone appliance or an appliance in a high availability setup, a link redundant set is specified in LR/X notation, where X can range from 1 to 4. For example, LR/1.
- In a high availability configuration, redundant interface set configurations do not propagate or synchronize to the secondary node.
- You can configure a maximum of four redundant interface sets on a NetScaler appliance.
- You can bind a maximum of 16 interfaces to a redundant interface set.
- Member interfaces of a redundant interface set cannot be bound to another redundant interface set.
- Member interfaces of a redundant interface set cannot be bound to a link aggregate (LA) channel.
- LA channels cannot be bound to a redundant interface set.
- Redundant interface sets cannot be bound to an LA channel.
- In a cluster setup:
- Redundant interface sets cannot be bound to a cluster link aggregation.
- A link redundant set is specified in N/LR/X notation (for example, 1/LR/3). Where: N is the ID of the cluster node on which the redundant interface set is to be created. X is a link-redundant set identifier on a cluster node. X can range 1–4.
- A cluster link aggregation cannot be bound to a redundant interface set.
- A redundant interface set can include only the interfaces of the node to which the redundant interface set belongs.
- An Existing elink redundancy set configuration on a standalone appliance automatically changes to cluster notation (N/LR/X) after the appliance is added to a cluster setup.
Configuration Steps
Configuring a redundant interface set on a NetScaler appliance consists of the following tasks:
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Create a redundant interface set. Use the channel command operation for creating a redundant interface set.
In a standalone appliance or an appliance in a high availability setup, a link redundant set is specified in LR/X notation, where X can range from 1 to 4. For example, LR/1.
In a cluster setup, a link redundant set is specified in N/LR/X (for example, 1/LR/3), where: N is the ID of the cluster node on which the redundant interface set is to be created; X is the link redundant set identifier on a cluster node. X can range 1–4.
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Bind interfaces to the redundant interface set. Associate the desired interfaces with the redundant interface set. An interface cannot be a part of multiple redundant interface sets.
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(Optional) Set a redundant interface priority on the member interface. Use the interface command operation for setting the redundant interface priority on a desired member interface of a redundant interface set.
To create a redundant interface set by using the CLI:
At the command prompt:
- add channel <ID>
- show channel <ID>
To bind interfaces to a redundant interface set by using the CLI:
At the command prompt:
- bind channel <ID> <ifnum>
- show channel <ID>
To set a redundant interface priority of an interface by using the CLI:
At the command prompt:
- set interface <ID> -lrsetpriority <positive_integer>
- show interface <ID>
Sample configuration 1:
In the following example, a redundant interface set LR/1 is created, and interfaces 1/1, 1/2, 1/3, and 1/4 are bound to LR/1. The redundant interface priority is set to a default value of 1024 for all these member interfaces. Output of the show channel command displays that the interface 1/1 is the current active interface for the redundant interface set lr/1.
> add channel lr/1
Done
> bind channel lr/1 1/1 1/2 1/3 1/4
Done
> show channel
1) Interface LR/1 (Link Redundant) #23
flags=0x100c020 <ENABLED, UP, LINKREDUNDANT, UP, HAMON, 802.1q>
MTU=1500, native vlan=1, MAC=36:97:a2:b7:6b:a9, uptime 0h00m00s
Requested: media NONE, speed AUTO, duplex NONE, fctl OFF,
throughput 0
Actual: throughput 1000
LLDP Mode: NONE,
RX: Pkts(1) Bytes(52) Errs(0) Drops(1) Stalls(0)
TX: Pkts(2) Bytes(84) Errs(0) Drops(4) Stalls(0)
NIC: InDisc(0) OutDisc(0) Fctls(0) Stalls(0) Hangs(0) Muted(0)
Bandwidth thresholds are not set.
1/1: UTP-1000-FULL-OFF UP 0h14m06s LR Active Member
1/2: UTP-1000-FULL-OFF UP 0h14m06s LR Inactive Member
1/3: UTP-1000-FULL-OFF UP 0h14m06s LR Inactive Member
1/4: UTP-1000-FULL-OFF UP 0h14m06s LR Inactive Member
Done
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Sample configuration 2:
In the following example, a redundant interface priority of the member interface 1/4 is set to 100, which is lower than the set redundant interface priority of all the other member interfaces of LR/1.
Output of the show channel command displays that the interface 1/4 is the current active interface for the redundant interface set LR/1.
> set interface 1/4 -lrsetPriority 100
Done
> show channel
1) Interface LR/1 (Link Redundant) #23
flags=0x100c020 <ENABLED, UP, LINKREDUNDANT, UP, HAMON, 802.1q>
MTU=1500, native vlan=1, MAC=36:97:a2:b7:6b:a9, uptime 0h00m00s
Requested: media NONE, speed AUTO, duplex NONE, fctl OFF,
throughput 0
Actual: throughput 1000
LLDP Mode: NONE,
RX: Pkts(1) Bytes(52) Errs(0) Drops(1) Stalls(0)
TX: Pkts(2) Bytes(84) Errs(0) Drops(4) Stalls(0)
NIC: InDisc(0) OutDisc(0) Fctls(0) Stalls(0) Hangs(0) Muted(0)
Bandwidth thresholds are not set.
1/1: UTP-1000-FULL-OFF UP 0h14m06s LR Inactive Member
1/2: UTP-1000-FULL-OFF UP 0h14m06s LR Inactive Member
1/3: UTP-1000-FULL-OFF UP 0h14m06s LR Inactive Member
1/4: UTP-1000-FULL-OFF UP 0h14m06s LR Active Member
Done
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Sample configuration 3:
Consider a cluster setup of four nodes N1, N2, N3, and N4. In this example, redundant interface set 1/LR/3 is created on node N1, and interfaces 1/1/1, 1/1/2, and 1/1/3 are bound to it. The redundant interface priority is set to a default value of 1024 for all these member interfaces. Output of the show channel command indicates that interface 1/1/1 is the current active interface for redundant interface set 1/LR/3.
> add channel 1/LR/3
Done
> bind channel 1/LR/3 1/1/1 1/1/2 1/1/3
Done
> show channel
1) Interface 1/LR/3 (Link Redundant) #14
flags=0x100c020 <ENABLED, UP, LINKREDUNDANT, UP, HAMON, 802.1q>
MTU=1500, native vlan=1, MAC=36:97:a2:b7:6b:a9, uptime 0h00m00s
Requested: media NONE, speed AUTO, duplex NONE, fctl OFF,
throughput 0
Actual: throughput 1000
LLDP Mode: NONE,
RX: Pkts(66) Bytes(4406) Errs(0) Drops(82) Stalls(0)
TX: Pkts(55) Bytes(2626) Errs(0) Drops(145) Stalls(0)
NIC: InDisc(0) OutDisc(0) Fctls(0) Stalls(0) Hangs(0) Muted(0)
Bandwidth thresholds are not set.
1/1/1: UTP-1000-FULL-OFF UP 0h14m06s LR Active Member
1/1/2: UTP-1000-FULL-OFF UP 0h14m06s LR Inactive Member
1/1/3: UTP-1000-FULL-OFF UP 0h14m06s LR Inactive Member
Done
<!--NeedCopy-->
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