Now supported on SRX 210 devices.
JUNOS software for SRX-series devices provides Domain Name System (DNS) support. The DNS ALG monitors DNS query and reply packets and closes the session if the DNS flag indicates the packet is a reply message.
To configure the DNS ALG, use the edit security alg dns statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide.
Now supported on SRX 240 and SRX650 devices. Existing support on SRX 210, SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
For information on functionality, see the “JUNOS for SRX-Series Services Gateways Product Overview” section.
To configure these ALGs, use the edit security alg ftp and edit security alg ftp statements at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide.
Now supported on SRX 210 devices.
JUNOS software for SRX-series devices provides H.323 standard and H.323 Avaya support. The H.323 standard is a legacy VoIP protocol defined by the International Telecommunication Union Telecommunication Standardization (ITU-T). H.323 consists of a suite of protocols (such as H.225.0 and H.245) that are used for call signaling and call control for VoIP.
To configure the H.323 ALG, use the edit security alg h323 statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide
Now supported on SRX 210 devices.
JUNOS software for SRX-series devices provides Media Gateway Control Protocol (MGCP) support. MGCP is a text-based Application Layer protocol used for call setup and call control between the media gateway and the media gateway controller (MGC).
To configure the MGCP ALG, use the edit security alg mgcp statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide
Now supported on SRX 210 devices.
JUNOS software for SRX-series devices provides Point-to-Point Tunneling Protocol (PPTP) support. PPTP is a Layer 2 protocol that tunnels PPP data across TCP/IP networks. The PPTP client is freely available on Windows systems and is widely deployed for building virtual private networks (VPNs).
To configure the PPTP ALG, use the edit security alg pptp statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide
Now supported on SRX 210 devices.
JUNOS software for SRX-series devices provides basic Remote Procedure Call (RPC) support. RPC is a protocol that allows an application running in one address space to access the resources of applications running in another address space as if the resources were local to the first address space. The RPC ALG is responsible for RPC packet processing.
To configure the RPC ALG, use the edit security alg rpc statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide
Now supported on SRX 210 devices.
JUNOS software for SRX-series devices provides Remote Shell (RSH) support. The RSH ALG handles TCP packets destined for port 514 and processes the RSH port command. The RSH ALG performs NAT on the port in the port command and opens gates as necessary.
To configure the RSH ALG, use the edit security alg rsh statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide
Now supported on SRX 210 devices.
JUNOS software for SRX-series devices provides Real-Time Streaming Protocol support.
To configure the RTSP ALG, use the edit security alg rtsp statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide
Now supported on SRX 210 devices.
JUNOS software for SRX-series devices provides Skinny Client Control Protocol (SCCP) support. SCCP is a Cisco proprietary protocol for call signaling. Skinny is based on a call-agent-based call-control architecture. The control protocol uses binary-coded frames encoded on TCP frames sent to well-known TCP port number destinations to set up and tear down RTP media sessions. The SCCP protocol, just as other call control protocols, negotiates media endpoint parameters, specifically the RTP port number and the IP address of media termination by embedding information in the control packets. The SCCP ALG parses these control packets and facilitates media and control packets to flow through the SRX-series devices.
To configure the SCCP ALG, use the edit security alg sccp statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide
Now supported on SRX 210 devices.
JUNOS software for SRX-series devices provides Session Initiation Protocol (SIP) support. SIP is an Internet Engineering Task Force (IETF)-standard protocol for initiating, modifying, and terminating multimedia sessions over the Internet. Such sessions might include conferencing, telephony, or multimedia, with features such as instant messaging and application-level mobility in network environments.
To configure the SIP ALG, use the edit security alg sip statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide
Now supported on SRX 210 devices.
JUNOS software for SRX-series devices provides Structured Query Language (SQL) support. The SQLNET ALG processes SQL TNS response frames from the server side. It parses the packet and looks for (HOST = ipaddress) , (PORT = port) patterns and performs NAT and gate opening on the client side for the TCP data channel.
To configure the SQLNET ALG, use the edit security alg sqlnet statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide
Now supported on SRX 210 devices.
JUNOS software for SRX-series devices provides TALK protocol support. The TALK protocol uses UDP port 517 and port 518 for control channel connections. The <ui>talk</ui> program consists of a server and a client. The server handles client notifications and helps to establish talk sessions. There are two types of talk servers: ntalk and talkd. The TALK ALG processes packets of both ntalk and talkd formats. It also performs NAT and gate opening as necessary.
To configure the TALK ALG, use the edit security alg talk statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide
Now supported on SRX 240 and SRX650 devices. Existing support on SRX 210, SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
For information on functionality, see the “JUNOS for SRX-Series Services Gateways Product Overview.”
To configure the TFTP ALG, use the edit security alg tftp statement at the [edit security alg] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide
This feature is supported on SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
The data plane now supports active/active chassis clustering for these SRX-series devices. The chassis clustering on these SRX-series devices is no longer restricted to the creation of only one redundancy group beyond redundancy group 0. You can now configure one or more redundancy groups numbered 1 through 128. Multiple redundancy groups make it possible for traffic to arrive on an interface of one redundancy group and egress on an interface that belongs to another redundancy group. In this situation, the ingress and egress interfaces might not be active on the same node. When this happens, the traffic is forwarded over the fabric link to the appropriate node. SRX-series chassis clusters operate with an active/backup control plane.
This feature is supported on SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
Prior to this release, when a node was disabled due to control link failure, after fixing the issue, you had to manually reboot the disabled node to make the disabled node rejoin the cluster. With this release, you can specify that control link recovery be done automatically by the system by using the set chassis cluster control-link-recovery command (this feature is disabled by default). Once the system determines that the control link is healthy, it issues an automatic reboot on the disabled node. When the disabled node reboots, the node rejoins the cluster. There is no need for any manual intervention.
This feature is now supported on SRX 210, SRX 240, and SRX650 devices. Existing support on SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
The process of synchronizing data plane RTOs (runtime objects) on the startup of the Services Processing Units (SPUs) or flowd is called cold sync. Chassis clustering supports the process of monitoring the cold-sync state of all SPUs or flowd on a node. Also, if you enable preempt, cold-sync monitoring prevents the node from taking over mastership until the cold-sync process is completed for all the SPUs or flowd on the node.
This feature is supported on SRX 210 devices.
Chassis clustering supports the process of monitoring the health of the flowd process. A failed flowd process causes failover of redundancy group x to the secondary node.
This feature is supported on SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
Chassis clustering supports SNMP traps, which are triggered whenever there is a redundancy group failover. You can specify that a trace log be generated by using the set chassis cluster traceoptions flag snmp command.
This feature is supported on SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
Chassis clustering supports the process of monitoring the health of the SPUs and of the central point (CP). A single, failed SPU causes failover of redundancy group x to the secondary node. A central point failure triggers failover to the secondary node.
This feature is supported on SRX 210, SRX 240, SRX650, SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
The user can now see the supported test conditions for a protocol in the CLI.
When configuring IDP custom attacks, you can now list supported test conditions for a specific protocol. For example, to configure test conditions for ICMP:
user@host# set test icmp?Possible completions: <test> Protocol anomaly condition to be checked ADDRESSMASK_REQUEST DIFF_CHECKSUM_IN_RESEND DIFF_CHECKSUM_IN_RESPONSE DIFF_LENGTH_IN_RESEND
user@host# set service ICMPuser@host# set test ADDRESSMASK_REQUESTThis feature is now supported on SRX 210, SRX 240, and SRX650 devices. Existing support on SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
CoS allows you to divide traffic into classes and specify various levels of throughput and packet loss when congestion occurs. This allows packet loss to happen occur according to the rules you configure. For more information about the JUNOS implementation of CoS and about configuring CoS, see the JUNOS Software Interfaces and Routing Configuration Guide.
This feature is supported on SRX 3400 and SRX 3600 devices.
To handle oversubscribed traffic in the SRX 3400 and SRX 3600 series devices, you can configure simple filters and policing. The simple filter functionality comprises of the following:
This feature is supported on SRX 210, SRX 240, SRX650, SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
IS-IS protocol, a classless interior routing protocol developed by the International Organization for Standardization (ISO) as part of the development of the Open Systems Interconnection (OSI) protocol suite. Like OSPF routing, IS-IS uses hello packets that allow network convergence to occur quickly when network changes are detected.
For more information about the IS-IS protocol and about configuring IS-IS, see the JUNOS Software Interfaces and Routing Configuration Guide.
This feature is supported on SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
Jumbo frames, or 9192 byte MTUs, on Gigabit Ethernet interfaces and 10-Gigabit Ethernet interfaces. To configure jumbo frame support, see the JUNOS Software Interfaces and Routing Configuration Guide.
This feature is supported on SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
This release provides Layer 2 bridging with transparent mode. Transparent mode provides full security services on top of Layer 2 bridging functions. An SRX services gateway operates in Layer 2 transparent mode when all physical interfaces on the device are configured as Layer 2 logical interfaces. There is no command to enable transparent mode on the device.
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Note: You cannot define both Layer 2 and Layer 3 logical interfaces on a physical interface. |
To configure a Layer 2 logical interface, use the unit statement at the [edit interfaces] hierarchy, and configure the logical interface with the bridge family type. You can configure the logical interface as an access or a trunk interface.
A bridge domain is a set of logical interfaces that share the same flooding or broadcast characteristics. You can configure a set of bridge domains that are associated with a trunk interface. The set of bridge domains then functions as a switch: a packet received on a trunk interface is forwarded based on the VLAN ID (a packet is forwarded within the bridge domain that has the same VLAN ID as the packet) and destination MAC. VLAN-based MAC learning, forwarding, and aging are supported. To configure a bridge domain, use the [edit bridge-domains] hierarchy to specify the VLAN ID(s) for packets that will be forwarded on the bridge domain.
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Note: In this release, Layer 2 bridging does not support STP. It is the user’s responsibility to ensure that no flooding loops exist in the network topology. |
You can optionally configure an integrated routing and bridging (IRB) interface for management traffic on the device. For this release, the IRB interface does not support traffic forwarding or routing. To configure an IRB interface, create an irb logical interface in the [edit interfaces] hierarchy, and then reference the IRB interface in the [edit bridge-domains] hierarchy.
When packets are forwarded through a bridge domain, security policies can be applied between Layer 2 security zones. To create Layer 2 security zones, use the security-zone statement at the [edit security zones] hierarchy, and specify the interfaces that belong to the zone. (The IRB interface cannot be assigned to any security zone.) You can configure screen options, address books, or TCP-RST for Layer 2 security zones.
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Note: You can configure the same screen options for a Layer 2 security zone as for a Layer 3 security zone, with the exception of IP spoofing. |
You configure a transparent mode security policy in the same way as for policies configured for Layer 3 zones, with the following exceptions:
To configure a transparent mode security policy, use the [edit security policies] hierarchy.
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Note: Chassis clustering of SRX devices in transparent mode is not supported in this release. |
For more information, see the JUNOS Software Interfaces and Routing Configuration Guide.
This feature is supported on SRX 210 devices.
This release allows SRX 210 devices to use 3G networks as primary or backup WAN links. Juniper supports the following 3G wireless modem cards installed in the ExpressCard slot of the SRX 210 services gateway:
The physical interface cl-0/0/8 is created automatically when the 3G modem is installed in the SRX 210 services gateway. To configure the interface, use the set interfaces cl-0/0/8 statement at the [set interfaces] hierarchy level. To configure the logical dialer interface, use the set interfaces dln statement at the [set interfaces] hierarchy level. For more information, see the JUNOS Software Interfaces and Routing Configuration Guide.
This feature is supported on SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
Multicast traffic streams between a single source and multiple destinations. In Protocol Independent Multicast (PIM) sparse mode, the first-hop routing platform encapsulates packets destined for the rendezvous point device. The packets are encapsulated with a unicast header and are forwarded through a unicast tunnel to the rendezvous point. The rendezvous point then de-encapsulates the packets and transmits them through its multicast tree.
Within a device, packets are routed to the PIM interfaces pe-0/0/0 for encapsulation and pd-0/0/0 for de-encapsulation. These interfaces are not associated with physical network interfaces and are created internally when you issue the set protocol pim command. You must configure PIM with the [edit protocols pim] hierarchy to perform PIM encapsulation or de-encapsulation.
For more information about multicast protocols and configuring multicast protocols on Juniper Networks devices, see the JUNOS Multicast Protocols Configuration Guide
This feature is now supported on SRX 210, SRX 240 and SRX650 devices. Existing support on SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
These devices provide a multiple flow thread architecture that results in increased IPsec performance. For more information, see the JUNOS Software Security Configuration Guide.
This feature is supported on SRX 210 and SRX 240 devices.
The dynamic VPN feature uses Internet Protocol Security (IPsec) technology to create secure VPN tunnels. This feature simplifies remote access by enabling users to establish VPN tunnels without having to manually configure VPN settings on their PCs or laptops. Instead, the client is dynamically delivered to users from the SRX 210 or SRX 240 devices upon successful authentication. This Layer 3 remote access client uses client-side configuration settings that it receives from the server to create and manage a secure VPN tunnel to the server. For more information, see the JUNOS Software Security Configuration Guide.
This feature is supported on SRX 210 devices.
You install the JUNOS software by using the Trivial File Transfer Protocol BOOT (TFTPBOOT) method. During installation of the JUNOS software, the secondary boot loader in the services gateway retrieves the JUNOS software package from a TFTP server. The software image is then installed on the internal flash. Using TFTP installation to install a new image will wipe out any user-generated configurations on the router. The router will come up with the factory default configuration.
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Note: The TFTPBOOT method can be used only on LANs. |
To install the software image on the internal flash, issue the following command at the loader prompt.
Loader > install URL
where URL is tftp://<tftp server ip> <package name>
You can use the TFTPBOOT method in the following scenarios:
For more information about the other installation methods, see the JUNOS Software Administration Guide.
This feature is now supported on SRX 240, and SRX650 devices. Existing support on SRX 210, SRX 3400, SRX 3600, SRX 5600, and SRX 5800 devices.
You can configure an SRX-series services gateway to act as a JUNOS Enforcer in a Unified Access Control (UAC) deployment. When deployed as a JUNOS Enforcer, the SRX-series device enforces the policies that are defined on the UAC’s Infranet Controller. To configure the SRX-series device as a JUNOS Enforcer, enable the application-services statement at the [edit security policies from-zone zone-name to-zone zone-name policy match then permit] hierarchy level. Then use the unified-access-control statement at the [edit services] hierarchy level to configure UAC features. For more information, see the JUNOS Software Security Configuration Guide.
These features are supported on SRX 210, SRX 240, and SRX650 devices.
The antispam feature uses a constantly updated spam block list (SBL). Sophos updates and maintains the IP-based SBL. The antispam feature is a separately licensed subscription service.
To configure antispam, use the antispam statement at the [set security utm feature-profile] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide.
To configure redirect content filtering, use the content-filtering statement at the [set security utm feature-profile] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide.
To configure express antivirus, use the antivirus juniper-express-engine statement at the [set security utm feature-profile] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide.
To configure full file-based antivirus, use the antivirus kaspersky-lab-engine statement at the [set security utm feature-profile] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide.
To configure integrated Web filtering, use the web-filtering surf-control-integrated statement at the [set security utm feature-profile] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide.
To configure redirect Web filtering, use the web-filtering websense-redirect statement at the [set security utm feature-profile] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide.
To apply your UTM license, use the system license update statement at the [request] hierarchy level. For more information, see the JUNOS Software Security Configuration Guide.
For more information, see the JUNOS Network Management Guide.
JUNOS software for the SRX 210 services gateway integrates the world-class network security and routing capabilities of Juniper Networks. JUNOS software for the SRX 210 includes a wide range of security services, including policies, screens, Network Address Translation (NAT), and other flow-based services, that are also supported on the other SRX-series services gateways.
The SRX 210 services gateway offers features that provide complete functionality and flexibility for delivering secure Internet and intranet access. This services gateway offers stable, reliable, and efficient IP routing along with WAN and LAN connectivity. The gateway provides Internet Protocol Security (IPsec), virtual private network (VPN), and firewall services for small and medium companies and enterprise branch and remote offices.
The SRX 210 services gateway can be connected directly to traditional private networks, such as leased line, Frame Relay, and MPLS networks, or the public Internet.
There are three variants of the SRX 210 services gateway:
The SRX 210 services gateway has redundant and resilient hardware. The following table provides the SRX 210 services gateway chassis specifications.
Table 3: SRX 210 Services Gateway Chassis Specifications
| Description | Value |
Chassis height |
1 rack unit (U) |
Chassis width |
11 in. (280 mm) |
Chassis depth |
7 in. (179 mm) |
The following table provides information about the SRX 210 services gateway hardware features.
Table 4: SRX 210 Services Gateway Hardware Features
For more information, see the SRX 210 Services Gateway Hardware Guide.
Wireless WAN access is becoming widely available and comparable in cost to ISDN and DSL. The SRX 210 services gateway provides support for a wireless interface that serves both as a backup and as the primary WAN connection.
Juniper Networks supports 3G wireless modem cards that you can install into the ExpressCard slot in SRX 210 services gateways.
The 3G ExpressCard provides the following key features:
For more information, see the SRX 210 Services Gateway Hardware Guide.
Power over Ethernet (PoE) is the implementation of the IEEE 802.3 AF standard, allowing both data and electric power to pass over a copper Ethernet LAN cable.
The SRX 210 services gateway supports PoE on Gigabit Ethernet ports. The PoE ports transfer electrical power, along with data, to remote devices over standard twisted-pair cable in an Ethernet network. PoE ports allow you to plug in devices that require both network connectivity and electric power, such as VOIP phones, wireless LAN access points, and IP telephones.
You can configure the gateway to act as power sourcing equipment to supply the power to powered devices connected on the designated ports.
The following table lists the SRX 210 services gateway PoE specifications.
Table 5: SRX 210 Services Gateway PoE Specifications
The SRX 210 services gateway provides a single-port ADSL2+ Mini-Physical Interface Module (Mini-PIM). The ADSL2+ Mini-PIM provides a single physical interface for ADSL network media types.
The ADSL2+ Mini-PIM supports the following operational modes:
The ADSL interface provides the following key features:
For more information, see the JUNOS Software Interfaces and Routing Configuration Guide.
The T1/E1 Mini-Physical Interface Module (Mini-PIM) provides the physical connection to T1 or E1 network media types and also performs T1 or E1 framing and line-speed signaling.
The T1 and E1 interfaces provide the following key features:
For more information, see the JUNOS Software Interfaces and Routing Configuration Guide.
The 1-Port Small Form factor Pluggable (SFP) Mini-Physical Interface Module (Mini-PIM) provides connectivity to a single Gigabit Ethernet device or network.
The 1-Port SFP Mini-PIM provides the following key features:
For more information, see the SRX 210 Services Gateway Hardware Guide.
Serial WAN links provide bidirectional links that require very few control signals. In a basic serial setup, the data circuit-terminating equipment (DCE) is responsible for establishing, maintaining, and terminating a connection. A modem is a typical DCE device. A serial cable connects the DCE to a telephony network where, ultimately, a link is established with data terminal equipment (DTE). DTE is typically where a link terminates.
Key Features
The SRX 240 device offers features that provide complete functionality and flexibility for delivering secure Internet and intranet access. The SRX 240 device offers stable, reliable, and efficient IP routing and WAN and LAN connectivity. The device provides IP Security (IPsec), virtual private network (VPN), and firewall services for small and medium companies and enterprise branch and remote offices.
The SRX 240 services gateway can be connected directly to a traditional private network such as leased line, Frame Relay, or Multi Protocol Label Switching (MPLS) networks as well as the public Internet.
There are three types of SRX 240 services gateways:
Table 6 lists the hardware features supported on the SRX 240 services gateway.
Table 6: Hardware Features of the SRX 240 Services Gateway
The SRX 240 services gateway has redundant and resilient hardware.
Table 7 describes the SRX 240 services gateway hardware specifications.
Table 7: Hardware Specifications of the SRX 240 Services Gateway
Table 8 describes the SRX 240 services gateway hardware features.
Table 8: SRX 240 Services Gateway Hardware Features
For more information, see the SRX 240 Services Gateway Hardware Guide.
Serial WAN links provide bidirectional links that require very few control signals. In a basic serial setup, the data circuit-terminating equipment (DCE) is responsible for establishing, maintaining, and terminating a connection. A modem is a typical DCE device. A serial cable connects the DCE to a telephony network where, ultimately, a link is established with data terminal equipment (DTE). DTE is typically where a link terminates.
Key Features
For more information, see the SRX 240 Services Gateway Hardware Guide.
Introduction
Power over Ethernet (PoE) is the implementation of the IEEE 802.3 AF standard, allowing both data and electric power to pass over a copper Ethernet LAN cable.
The SRX 240 services gateway supports PoE on Gigabit Ethernet ports. The PoE ports transfer electrical power, along with data, to remote devices over standard twisted-pair cable in an Ethernet network. PoE ports allow you to plug in devices that require both network connectivity and electric power, such as VOIP phones, wireless LAN access points, and IP telephones.
You can configure the gateway to act as power sourcing equipment to supply the power to powered devices connected on the designated ports.
SRX 240 Services Gateway PoE Specifications
Table 9 lists the SRX 240 Services Gateway PoE specifications:
Table 9: SRX 240 Services Gateway PoE Specifications
The SRX650 is a mid-range dynamic services gateway that consolidates network infrastructure and security applications for regional offices, large branch offices, and small to medium enterprises. The services gateway provides cost-effective, scalable integration of routing, security, and other mid-range applications for these sites.
The SRX650 services gateway has a modular 2U chassis that fits a 19-inch rack with a depth of approximately 18.1 inches. It contains a rear-pluggable Services and Routing Engine (SRE) module that improves processing performance for mid-range applications, particularly routing and firewall services.
The SRX650 services gateway provides the following features:
Services and Routing Engine Module—The Services and Routing Engine (SRE) module provides processing power for security services, routing protocol processes, and other software processes that control the services gateway interfaces, some of the chassis components, system management, and user access to the device.
The services gateway must have at least one SRE installed. You can install additional SREs to increase processing power or to create SRE redundancy. SREs install horizontally in the back of the chassis in slots SRE0 and SRE1/SRE1.1. An SRE weighs 3 lbs 13.6 oz (1.75 kg).
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Caution: SREs are not Online Insertion and Removal (OIR) capable. You must power off the services gateway before removing or inserting an SRE. |
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Note: Slot SRE0 is a full-length slot capable of holding a full-slot module such as an SRE. The SRE1 and SRE1.1 slots are capable of holding either two half-slot modules or one full-slot module. |
If a slot is not occupied by a card, a blank panel must be installed to shield the empty slot and to maintain proper cooling of the services gateway.
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Note: For this release, the SRE must be installed into the lower slot (SRE0). |
Gigabit-Backplane Pluggable Interface Modules—The SRX650 services gateway supports the following Gigabit-backplane Pluggable Interface Modules (GPIMs):
A GPIM is a network interface card that installs in the front slots of the services gateway to provide physical connections to a LAN or a WAN. The GPIM receives incoming packets from a network and transmits outgoing packets to a network.
PIM Terminology:
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Caution: GPIMs are not Online Insertion and Removal (OIR) capable. You must power off the services gateway before removing or inserting a GPIM. Ensure that the GPIM is installed in the appropriate GPIM slot before powering on the services gateway. |
The services gateway GPIMs communicate with the backplane at various performance levels and might require specific GPIM slot placement. GPIM slots are located in the front of the chassis and can hold up to 8 standard GPIMs. The Dual T1/E1 GPIM and Quad T1/E1 GPIM can be plugged into any GPIM slot on the services gateway and provide the physical connection to T1 or E1 network media types. The SRX650 services gateway chassis can also hold GPIMs that use more than one standard slot:
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Note: When installing the 24-Port Gigabit Ethernet XPIM, which uses four slots, you must install it in the 20-gigabit GPIM slots 2 and 6, which refer to the bottom four slots 1 to 4, or the top four slots 5 to 8. |
The Dual T1/E1 GPIM and Quad T1/E1 GPIM provide the following common key features for both T1 and E1 modes:
The Dual T1/E1 GPIM and Quad T1/E1 GPIM provide the following key features specific to either T1 or E1 modes as listed in Table 10.
Table 10: Dual T1/E1 GPIM and Quad T1/E1 Specific T1 or E1 Features
The following USB devices have been tested with SRX650 devices:
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Note: Contact a customer service representative for more information on supported USB devices. |
Both 16-Port XGPIM and 24-Port XPIM support Power over Ethernet (PoE) if a PoE-capable power supply and PIM module are installed in the chassis. PoE is the implementation of the IEEE 802.3 AF standard, which allows both data and electric power to pass over a copper Ethernet LAN cable. The active Services and Routing Engine (SRE) manages the overall system PoE power.
The SRX650 services gateway provides PoE ports, which supply electric power over the same ports that are used to connect network devices. PoE ports allow you to plug in devices that require both network connectivity and electric power, such as VOIP, IP phones, and wireless access points. You can configure the services gateway to act as power sourcing equipment to supply the power to the GPIMs connected on the designated PoE ports.
Table 11 lists the SRX650 Services Gateway PoE Specifications.
Table 11: SRX650 Services Gateway PoE Specifications
For more information, see the SRX650 Services Gateway Hardware Guide.
This release of JUNOS supports the new SRX5K-FPC-IOC modular Flex I/O Card (IOC) for the SRX 5600 and SRX 5800 services gateways.
Flex IOCs are IOCs that have two slots and accept port modules that add Ethernet ports to your services gateway. A flex IOC with port modules installed in it functions in the same way as a regular IOC, but allows greater flexibility in adding different types of Ethernet ports to your services gateway.
Table 12 lists the Port Modules for SRX 5600 and SRX 5800 services gateway Flex IOC.
Table 12: Port Modules for SRX 5600 and SRX 5800 Services Gateway Flex IOC
Module |
Port type |
Ports |
|---|---|---|
SRX-IOC-16GE-TX |
10/100/1000 RJ-45 |
16 |
SRX-IOC-4XGE-XFP |
10 Gigabit XFP |
4 |
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Note: A third port module type, the SRX-IOC-16GE-SFP, is described in the SRX 5600 Services Gateway Hardware Guide and SRX 5800 Services Gateway Hardware Guide, but this is not available in the 9.5 release. |