EX4100-H Line of Ethernet Switches Datasheet

The EX4100‑H family of Ethernet switches consists of the following models:

• The EX4100‑H‑12MP, offering 4 x 100MB/1GbE/2.5GbE and 8 x 10 MB/100 MB/1GbE PoE++ access ports, delivering up to 90 W per port with an overall total PoE budget of 360 W using two power supplies. A combination of two AC PSUs or two DC PSUs or one AC PSU and one DC PSU can be used at the same time. PSUs are external, hot swapable and field replaceable (FRU). It includes 2 x 1/10GbE SFP+ fixed uplink ports and 2 x 1/10GbE SFP+ ports to support Virtual Chassis connections that can be reconfigured for use as Ethernet ports for uplink connectivity.

EX4100‑H offers feature parity with the EX4100 line of switches and shares the same Junos image. It offers the capability to form a Virtual Chassis using the EX4100‑H and EX4100 lines of switches. EX4100‑H switches also include high availability (HA) features such as redundant, hot‑swappable power supplies to ensure maximum uptime. In addition, ‑12 port and ‑24 port Multi‑Gigabit Ethernet EX4100‑H switch models offer standards‑based 802.3af/at/bt (PoE/PoE+/PoE++) for delivering up to 90 watts on any access port. The EX4100‑H switches can be configured to deliver fast PoE capability that enables the switches to deliver PoE power to connected PoE devices within a few seconds of power being applied to the switches.

EX4100‑H switches can be quickly and easily onboarded (Day 0), provisioned (Day 1), and managed (Day 2+) from the cloud with Juniper Mist Wired Assurance, which brings AI‑powered automation and insights that optimize experiences for end users and connected devices. 

The EX4100‑H provides rich Junos^® operating system telemetry data for Mist AI that helps achieve simpler operations, shorter mean time to repair (MTTR), and streamlined troubleshooting. For more information, read the Juniper Mist Wired Assurance datasheet.

In addition to Juniper Mist Wired Assurance, Marvis Virtual Network Assistant—a key part of The Self‑Driving Network^™— makes the Mist AI engine interactive. A digital extension of the IT team, Marvis offers automatic fixes or recommended actions, allowing IT teams to streamline how they troubleshoot and manage their network operations.

Most traditional campus networks have a single‑vendor, chassis‑based architecture that worked well for smaller, static campuses with few endpoints. However, this approach is too rigid to support the changing needs of modern campus networks. The EX4100‑H supports EVPN‑VXLAN, extending an end‑to‑end fabric from campus core to distribution to the access layer.

An EVPN‑VXLAN fabric is a simple, programmable, highly‑scalable architecture built on open standards. This technology can be applied in both data centers and campuses for architectural consistency. A campus EVPN‑VXLAN architecture uses a Layer 3 IP‑based underlay network and an EVPN‑VXLAN overlay network. A flexible overlay network based on a VXLAN overlay with an EVPN control plane efficiently provides Layer 2 and/or Layer 3 connectivity throughout the network. EVPN‑VXLAN also offers a scalable way to build and interconnect multiple campus sites, delivering:

• Greater consistency and scalability across all network layers
• Multivendor deployment support
• Reduced flooding and learning
• Location‑agnostic connectivity
• Consistent network segmentation
• Simplified management

Juniper’s Virtual Chassis technology allows multiple interconnected switches to operate as a single, logical unit, enabling users to manage all platforms as one virtual device. Up to 10 EX4100‑H switches can be interconnected as a Virtual Chassis using 2/4 x 10GbE SFP+ dedicated Virtual Chassis ports. Although configured as Virtual Chassis ports by default, the 2/4 x 10GbE SFP+ Virtual Chassis ports can also be configured as uplink ports. The EX4100‑H switches can form a Virtual Chassis with any other models within the EX4100‑H and EX4100 product line.

GBP leverages underlying VXLAN technology to provide location‑agnostic endpoint access control. This allows network administrators to implement consistent security policies across the enterprise network domains. The EX4100‑H supports a standards‑based GBP solution, allowing different levels of access control for endpoints and applications, even within the same VLAN. Customers can simplify their network configuration by using GBP, avoiding the need to configure large numbers of firewall filters on all their switches. GBP can block lateral threats by ensuring consistent application of security group policies throughout the network, regardless of the location of endpoints and/or users.

Flow‑based telemetry enables flow‑level analytics, allowing network administrators to monitor thousands of traffic flows on the EX4100‑H without burdening the CPU. This improves network security by monitoring, baselining, and detecting flow anomalies. For example, if predefined flow thresholds are breached due to an attack, IP Flow Information Export (IPFIX) alerts can be sent to an external server to quickly identify the attack. Network administrators can also automate specific workflows, such as further examining the traffic or quarantining a port, to triage the issue. In addition to DOS attacks, flow‑based telemetry on EX4100‑H switches can measure packet delays at ingress, chip, and egress points, as well as report drop reasons.

The EX4100‑H is fully cloud onboarded, provisioned, and managed by Juniper Mist Wired Assurance. The EX4100‑H is designed from the ground up to deliver the rich telemetry that enables AI for IT Operations (AIOps) with simplified operations from Day 0 to Day 2 and beyond. Juniper Mist Wired Assurance provides detailed switch insights for easier troubleshooting and improved time to resolution by offering the following features:

• Day 0 operations: Onboard switches seamlessly by claiming a greenfield switch or adopting a brownfield switch with a single activation code for true plug‑and‑play simplicity
• Day 1 operations: Implement a template‑based configuration model for bulk rollouts of traditional and campus fabric deployments while retaining the flexibility and control required to apply custom site‑ or switch‑specific attributes. Automate provisioning of ports via Dynamic Port Profiles
• Day 2 operations: Leverage the AI in Juniper Mist Wired Assurance to meet service‑level expectations such as throughput, successful connects, switch health, and switch bandwidth, with key pre‑ and post‑connection metrics (see Figure 2).

Marvis complements Wired Assurance and streamlines network operations with simplified troubleshooting and performance analysis for help desk staff and network administrators. Simply ask a question in natural language and get actionable insights. Add the self‑driving capabilities in Marvis Actions to get proactive recommendations for wired issues, such as missing VLANs, DHCP failure scopes, wired authentication failures, bad cables, port negotiation mismatches, persistently failing clients, detection of L2 loops, misconfigured ports, and traffic loops. (see Figure 3). And perform software upgrades easily through Juniper Mist Cloud.

The main advantages of EVPN‑VXLAN in campus networks are:

• Flexibility of consistent VLANs across the network: Endpoints can be placed anywhere in the network and remain connected to the same logical L2 network, enabling a virtual topology to be decoupled from the physical topology
• Microsegmentation: The EVPN‑VXLAN‑based architecture lets you deploy a common set of policies and services across campuses with support for L2 and L3VPNs
• Scalability: With an EVPN control plane, enterprises can scale out easily by adding more core, aggregation, and access layer devices as the business grows without having to redesign the network or perform a forklift upgrade. Using an L3 IP‑based underlay coupled with an EVPN‑VXLAN overlay, campus network operators can deploy much larger and more resilient networks than would otherwise be possible with traditional L2 Ethernet‑based architectures.

Juniper offers complete flexibility in choosing any of the following validated EVPN‑VXLAN campus fabrics that cater to networks of different sizes, scale, and segmentation requirements:

EVPN multihoming (on collapsed core or distribution): A collapsed core architecture combines the core and distribution layers into a single layer, turning the traditional three‑tier hierarchal network into a two‑tier network. EVPN multihoming on a collapsed core eliminates the need for Spanning Tree Protocol (STP) across campus networks by providing link aggregation capabilities from the access layer to the core layer. This topology is best suited for small to medium distributed enterprise networks and allows for consistent VLANs across the network. This topology uses ESI (Ethernet Segment Identifier) LAG (Link Aggregation) and is a standards‑based protocol.

Campus Fabric Core distribution: When EVPN VXLAN is configured across core and distribution layers, it becomes a campus Fabric Core Distribution architecture that can be configured in two modes: centrally or edge routed bridging overlay. This architecture provides an opportunity for an administrator to move toward campus‑fabric IP Clos without a forklift upgrade of all access switches in the existing network while bringing in the advantages of moving to a campus fabric and providing an easy way to scale out the network.

Campus fabric IP Clos: When EVPN VXLAN is configured on all layers, including access, it is called the campus fabric IP Clos architecture. This model is also referred to as “end‑to‑end,” given that VXLAN tunnels are terminated at the access layer. Due to the availability of VXLAN at access, it provides us with the opportunity to bring policy enforcement to the access layer (closest to the source) using GBP. Standards‑based GBP tags bring the unique option to segment traffic both at a micro and macro level. GBP tags are assigned dynamically to clients as part of Radius transaction by Mist Cloud NAC. This topology works for small to medium and large campus architectures that need macro and microsegmentation.

All three topologies are standards‑based and interoperable with third‑party vendors.

The EX4100‑H switches can be deployed in campus and branch access layer networks in the EVPN‑VXLAN architectures shown in Figure 4.

Juniper Mist Wired Assurance brings cloud management and Mist AI to the campus fabric. It sets a new standard that moves away from traditional network management toward AI‑driven operations while delivering better experiences to connected devices. Juniper Mist Cloud streamlines deployment and management of campus fabric architectures by allowing:

• Automated deployment and zero‑touch deployment (ZTD)
• Anomaly detection
• Root cause analysis

The EX4100‑H switches deliver high availability through redundant power supplies, graceful Routing Engine switchover (GRES), and nonstop bridging and routing when deployed in a Virtual Chassis configuration.

In a Virtual Chassis configuration, each EX4100‑H switch is capable of functioning as a Routing Engine (RE). When two or more EX4100‑H switches are interconnected, a single control plane is shared among all Virtual Chassis member switches. Junos OS automatically initiates an election process to assign a primary (active) and backup (hot‑standby) RE. An integrated L2 and L3 GRES feature maintains uninterrupted access to applications, services, and IP communications in the unlikely event of a primary RE failure.

When more than two switches are interconnected in a Virtual Chassis configuration, the remaining switch elements act as line cards and are available to assume the backup RE position should the designated primary RE fail. Primary, backup, and line card priority status can be assigned to dictate the order of ascension. This N+1 RE redundancy, coupled with the GRES, nonstop active routing (NSR), and nonstop bridging (NSB) capabilities of Junos OS, assures a smooth transfer of control plane functions following unexpected failures.

The EX4100‑H implements the same slot/module/port numbering scheme as other Juniper chassis‑based products when numbering Virtual Chassis ports, providing true chassis‑like operations. By using a consistent operating system and a single configuration file, all switches in a Virtual Chassis configuration are treated as a single device, greatly simplifying overall system maintenance and management.

Individually, the EX4100‑H offers a number of HA features that are typically associated with modular chassis‑based switches. When combined with the field‑proven Junos OS and L2/L3 failover capabilities, these features provide the EX4100‑H with true carrier‑class reliability.

• Redundant power supplies: The EX4100‑H line of switches supports redundant, load‑sharing, hot‑swappable, and field‑ replaceable power supplies to maintain uninterrupted operations
• No fans: The EX4100‑H are ruggedized switches with no moving parts. Therefore, there are no fans
• Nonstop bridging and nonstop active routing: NSB and NSR on the EX4100‑H ensure that control plane protocols, states, and tables are synchronized between primary and standby REs to prevent protocol flaps or convergence issues following an RE failover
• Redundant trunk group (RTG): To avoid the complexities of STP without sacrificing network resiliency, the EX4100‑H employs redundant trunk groups to provide the necessary port redundancy and simplify switch configuration
• Cross‑member link aggregation: Cross‑member link aggregation allows redundant link aggregation connections between devices in a single Virtual Chassis configuration, providing an additional level of reliability and availability
• IPv4 and IPv6 routing support: IPv4 and IPv6 Layer 3 routing (OSPF and BGP) is available with a Flex license, enabling highly resilient networks

The EX4100‑H switches support IEEE 802.1ae MACsec with AES‑256‑bit encryption to increase security of point‑to‑point traffic communications. MACsec provides encrypted communication at the link layer that is capable of identifying and preventing threats from denial of service (DoS) and other intrusion attacks, as well as man‑in‑the‑middle, masquerading, passive wiretapping, and playback attacks launched from behind the firewall. When MACsec is deployed on ports, the traffic is encrypted on the wire, but the traffic inside the switch is not. This allows the switch to apply network policies such as quality of service (QoS) or deep packet inspection (DPI) to each packet without compromising the security of packets on the wire.

The EX4100‑H delivers PoE to connected devices such as environmental sensors, Human Machine Interfaces (HMI), Programmable Logic Controllers (PLC), phones, surveillance cameras, IoT devices, and 802.11AX/Wi‑Fi 6 access points, offering a PoE of 90W per port based on the IEEE 802.3bt PoE standard.

EX4100‑H switches support perpetual PoE, which provides uninterrupted power to connected PoE powered devices (PDs) even when the EX4100‑H switch is rebooting.

The EX4100‑H switches also support a fast PoE capability that delivers PoE power to connected endpoints during a switch power‑up, even before the switch is fully operational. This is especially beneficial in situations where the endpoint only needs the power and is not necessarily dependent on network connectivity.

The EX4100‑H switches support a two‑wire, two alarms in, one alarm out dry‑contact alarms. Alarms provide essential alerts and monitoring capabilities that can be integrated with external sensors to take automatic corrective action.

The EX4100‑H switches and power supplies must be installed in a restricted‑access location and ensure they are always properly grounded. Use Juniper supported grounding lugs or third‑party grounding lugs as per the spec called out in the grounding lug SKU.

The EX4100‑H supports Junos telemetry interface (JTI), a modern telemetry streaming feature designed for switch health and performance monitoring. Sensor data can be streamed to a management system at configurable periodic intervals, enabling network administrators to monitor individual link and node utilization and troubleshoot issues such as network congestion in real time. JTI delivers the following features:

• Performance management by provisioning sensors to collect and stream data and analyze application and workload flow paths through the network
• Capacity planning and optimization by proactively detecting hotspots and monitoring latency and microbursts
• Troubleshooting and root cause analysis via high‑frequency monitoring and correlation of overlay and underlay networks

The EX4100‑H switches run Junos OS, Juniper’s powerful and robust network operating system that powers all Juniper switches, routers, and firewalls. By utilizing a common operating system, Juniper delivers a consistent implementation and operation of control plane features across all products. To maintain that consistency, Junos OS adheres to a highly disciplined development process that uses a single source code and employs a highly available modular architecture to prevent isolated failures from bringing down an entire system.

These attributes are fundamental to the core value of the software, enabling all Junos OS‑powered products to be updated simultaneously with the same software release. All features are fully regression tested, making each new release a true superset of the previous version. Customers can deploy the software with complete confidence that all existing capabilities are maintained and operate in the same way.

Juniper Flex licensing offers a common, simple, and flexible licensing model for EX Series access switches, enabling customers to purchase features based on their network and business needs. Flex licensing is offered in Standard, Advanced, and Premium tiers. Standard tier features are available with the Junos OS image that ships with EX Series switches. Additional features can be unlocked with the purchase of a Flex Advanced or Flex Premium license.

The Flex Advanced and Flex Premium licenses for the EX Series platforms are class-based, determined by the number of access ports on the switch. Class 1 (C1) switches have 12 ports, Class 2 (C2) switches have 24 ports, and Class 3 (C3) switches have 32 or 48 ports.

The EX4100-H switches support both subscription and perpetual Flex licenses. Subscription licenses are offered for three- and five-year terms. In addition to Junos OS features, the Flex Advanced and Flex Premium subscription licenses include Juniper Mist Wired Assurance. Flex Advanced and Flex Premium subscription licenses also allow portability across the same tier and class of switches, ensuring investment protection for the customer.

For a complete list of features supported by the Flex Standard, Advanced, and Premium tiers, or to learn about Junos OS EX Series licenses, please visit: https://www.juniper.net/documentation/us/en/software/license/licensing/topics/concept/flex-licenses-for-ex.html.

The EX4100‑H includes an enhanced limited lifetime hardware warranty that provides return‑to‑factory switch replacement for as long as the original purchaser owns the product. The warranty includes lifetime software updates, advanced shipping of spares within one business day, and 24x7 Juniper Networks Technical Assistance Center (JTAC) support for 90 days after the purchase date. Power supplies are covered for a period of five years. For complete details, please visit https://support.juniper.net/support/pdf/warranty/enhanced-limited-lifetime-warranty-ex-series.pdf.

The EX4100‑H also offers spare chassis options without power supplies, providing customers with the flexibility to stock SKUs (see Table 3). See the Ordering Information section for additional details.

• 40 Gbps Virtual Chassis interconnect to combine up to 10 units as a single logical device

• Power supplies dual load sharing hot‑ swappable internal and external redundant power supplies
• Maximum current inrush: 30 amps
• Minimum number of PSUs required for fully loaded chassis: one per switch

• EX4100-H-12MP switch (with no PSU): 5.22 lb (2.37 kg)
• 340 W external AC power supply: 4.52 lb (2.05 kg)
• 340 W external DC power supply: 4.08 lb (1.85 kg)

• Operating temperature: 
  • -40° to 167°F (-40° to 75°C) (blower-equipped cabinet)
  • -40° to 140°F (-40° to 60°C) (sealed cabinet)
  • -40° to 158°F (-40° to 70°C) (vented cabinet)
• Storage temperature: -40° to 185° F (-40° to 85° C)
• Operating altitude: Up to 15,000 ft at 40° C (4572 m)
• Nonoperating altitude: Up to 15,000 ft (4572 m)
• Relative humidity operating: 5% to 95% (noncondensing)

• Store and forward

• DRAM: 4 GB with Error Correcting Code (ECC) on all models
• Storage: 8 GB on all models

• 1.7 GHz ARM CPU on all models

• EX4100-H-12MP: 16 (4 2.5GbE host ports + 8 1GbE host ports + 4 1GbE/10GbE ports)

• Time domain reflectometry (TDR) for detecting cable breaks and shorts: EX4100‑H‑12MP
• Auto medium‑dependent interface/medium‑dependent interface crossover (MDI/MDIX) support: EX4100‑H‑12MP
• Port speed downshift/setting maximum advertised speed on
  • 10/100/1000BASE‑T ports on EX4100‑H‑12MP 
  • 100/1000BASE‑T/2.5GBASE‑T on EX4100‑H‑12MP

• EX4100‑H‑12MP: 72 Gbps (unidirectional)/144 Gbps (bidirectional), non‑blocking

• EX4100-H-12MP 107 Mpps

• Media Access Control (MAC) limiting (per port and per VLAN)
• Allowed MAC addresses: 64,000
• Dynamic Address Resolution Protocol (ARP) dynamic ARP inspection (DAI)
• IP source guard
• Local proxy ARP
• Static ARP support
• Dynamic Host Configuration Protocol (DHCP) snooping
• Captive portal
• Persistent MAC address configurations
• Distributed denial of service (DDoS) protection (CPU control path flooding protection)

• Maximum MAC addresses per system: 64,000
• Jumbo frames: 9216 bytes
• Range of possible VLAN IDs: 1 to 4094
• Virtual Spanning Tree (VST) instances: 253
• Port‑based VLAN
• Voice VLAN
• Physical port redundancy: Redundant trunk group (RTG)
• Compatible with Per‑VLAN Spanning Tree Plus (PVST+)
• Routed VLAN interface (RVI)
• Uplink failure detection (UFD)
• ITU‑T G.8032: Ethernet Ring Protection Switching
• IEEE 802.1AB: Link Layer Discovery Protocol (LLDP)
• LLDP‑MED with VoIP integration
• Default VLAN and multiple VLAN range support
• MAC learning deactivate
• Persistent MAC learning (sticky MAC)
• MAC notification
• Private VLANs (PVLANs)
• Explicit congestion notification (ECN)
• Layer 2 protocol tunneling (L2PT)
• IEEE 802.1ak: Multiple VLAN Registration Protocol (MVRP)
• IEEE 802.1p: Class of service (CoS) prioritization
• IEEE 802.1Q: VLAN tagging
• IEEE 802.1X: Port Access Control
• IEEE 802.1ak: Multiple Registration Protocol
• IEEE 802.3: 10BASE‑T
• IEEE 802.3u: 100BASE‑T
• IEEE 802.3ab: 1000BASE‑T
• IEEE 802.3z: 1000BASE‑X
• IEEE 802.3bz: 2.5GBASE‑T and 5GBASE‑T
• IEEE 802.3ae: 10‑Gigabit Ethernet
• IEEE 802.3by: 25‑Gigabit Ethernet
• IEEE 802.3af: Power over Ethernet
• IEEE 802.3at: Power over Ethernet Plus
• IEEE 802.3bt: 90 W Power over Ethernet
• IEEE 802.3x: Pause Frames/Flow Control
• IEEE 802.3ah: Ethernet in the First Mile

• IEEE 802.1D: Spanning Tree Protocol
• IEEE 802.1s: Multiple Spanning Tree Protocol (MSTP)
• Number of MST instances supported: 64
• Number of VLAN Spanning Tree Protocol (VSTP) instances supported: 253
• IEEE 802.1w: Rapid reconfiguration of Spanning Tree Protocol

• IEEE 802.3ad: Link Aggregation Control Protocol
• 802.3ad (LACP) support
• Number of LAGs supported: 128
  • Maximum number of ports per LAG: 8
• LAG load-sharing algorithm bridged or routed (unicast or multicast) traffic:
  • IP: S/D IP
  • TCP/UDP: S/D IP, S/D Port
  • Non-IP: S/D MAC
  • Tagged ports support in LAG

• Maximum number of ARP entries: 32,000
• Maximum number of IPv4 unicast routes in hardware: 32,650 prefixes; 32,150 host routes
• Maximum number of IPv4 multicast routes in hardware: 16,100 multicast routes
• Routing protocols: RIPv1/v2, OSPF, BGP, IS‑IS
• Static routing
• Routing policy
• Bidirectional Forwarding Detection (BFD)
• L3 redundancy: Virtual Router Redundancy Protocol (VRRP)
• VRF‑Lite: 1000

• Maximum number of neighbor discovery (ND) entries: 16,000
• Maximum number of IPv6 unicast routes in hardware: 16,200 prefixes; 16,050 host routes
• Maximum number of IPv6 multicast routes in hardware: 8,000 multicast routes
• Routing protocols: RIPng, OSPFv3, IPv6, IS‑IS
• Static routing

• ACL entries (ACE) in hardware per system:
  • Port‑based ACL (PACL) ingress: 4092
  • VLAN‑based ACL (VACL) ingress: 4092
  • Router‑based ACL (RACL) ingress: 4092
  • Port‑based ACL (PACL) egress: 1022
  • VLAN‑based ACL (VACL) egress: 511
  • Egress across RACL: 1022
  • ACL counter for denied packets
• ACL counter for permitted packets
• Ability to add/remove/change ACL entries in middle of list (ACL editing)
• L2‑L4 ACL

• 802.1X port‑based
• 802.1X multiple supplicants
• 802.1X with VLAN assignment
• 802.1X with authentication bypass access (based on host MAC address)
• 802.1X with VoIP VLAN support
• 802.1X dynamic ACL based on RADIUS attributes
• 802.1X Supported Extensible Authentication Protocol (EAP) types: Message Digest 5 (MD5), Transport Layer Security (TLS), Tunneled TLS (TTLS), Protected Extensible Authenticated Protocol (PEAP)
• MAC authentication (RADIUS)
• Control plane DoS protection
• Radius functionality over IPv6 for authentication, authorization, and accounting (AAA)
• DHCPv6 snooping
• IPv6 neighbor discovery
• IPv6 source guard
• IPv6 router advertisement (RA) guard
• IPv6 Neighbor Discovery Inspection
• MACsec

• Redundant, hot‑swappable power supplies
• Redundant, field‑replaceable, hot‑swappable fans
• GRES for Layer 2 hitless forwarding and Layer 3 protocols on RE failover
• Graceful protocol restart (OSPF, BGP)
• Layer 2 hitless forwarding on RE failover
• Nonstop bridging: LACP, xSTP
• Nonstop routing: PIM, OSPF v2 and v3, RIP v2, RIPng, BGP, BGPv6, IS‑IS, IGMP v1, v2, v3

• L2 QoS
• L3 QoS
• Ingress policing: 1 rate 2 color
• Hardware queues per port: 12 (8 unicast + 4 multicast)
• Scheduling methods (egress): Strict priority (SP), weighted deficit round‑robin (WDRR)
• 802.1p, DiffServ code point (DSCP)/IP precedence trust and marking
• L2‑L4 classification criteria: Interface, MAC address, Ethertype, 802.1p, VLAN, IP address, DSCP/IP precedence, TCP/UDP port numbers, and more
• Congestion avoidance capabilities: Tail drop, weighted random early detection (WRED)

• IGMP: v1, v2, v3
• IGMP snooping
• Multicast Listener Discovery (MLD) snooping
• Protocol Independent Multicast‑Sparse Mode (PIM‑SM), PIM Source‑Specific Mode (PIM‑SSM), PIM Dense Mode (PIM‑DM)

• Juniper Mist Wired Assurance for campus
• Junos Space^® Network Director for campus
• Junos Space Management Applications

• Junos OS CLI
• Out‑of‑band management: Serial; 10/100/1000BASE‑T Ethernet
• Rescue configuration
• Configuration rollback
• Image rollback
• RMON (RFC2819) groups 1, 2, 3, 9
• Remote performance monitoring
• SNMP: v1, v2c, v3
• Network Time Protocol (NTP)
• DHCP server
• DHCP client and DHCP proxy
• DHCP relay and helper
• DHCP local server support
• RADIUS
• TACACS+
• SSHv2
• Secure copy
• HTTP/HTTPs
• Domain Name System (DNS) resolver
• System logging
• Temperature sensor
• Configuration backup via FTP/secure copy

• RFC 768 UDP
• RFC 783 TFTP
• RFC 791 IP
• RFC 792 ICMP
• RFC 793 TCP
• RFC 826 ARP
• RFC 854 Telnet client and server
• RFC 894 IP over Ethernet
• RFC 903 RARP
• RFC 906 TFTP Bootstrap
• RFC 951, 1542 BootP
• RFC 1027 Proxy ARP
• RFC 1058 RIP v1
• RFC 1112 IGMP v1
• RFC 1122 Host Requirements
• RFC 1195 Use of OSI IS‑IS for Routing in TCP/IP and Dual Environments (TCP/IP transport only)
• RFC 1256 IPv4 ICMP Router Discovery (IRDP)
• RFC 1492 TACACS+RFC 1519 CIDR
• RFC 1587 OSPF NSSA Option
• RFC 1591 DNS
• RFC 1812 Requirements for IP Version 4 Routers
• RFC 1981 Path MTU Discovery for IPv6
• RFC 2030 SNTP, Simple Network Time Protocol
• RFC 2068 HTTP server
• RFC 2080 RIPng for IPv6
• RFC 2131 BOOTP/DHCP relay agent and DHCP server
• RFC 2138 RADIUS Authentication
• RFC 2139 RADIUS Accounting
• RFC 2154 OSPF w/Digital Signatures (password, MD‑5)
• RFC 2236 IGMP v2
• RFC 2267 Network Ingress Filtering
• RFC 2328 OSPF v2 (edge‑mode)
• RFC 2338 VRRP
• RFC 2362 PIM‑SM (edge‑mode)
• RFC 2370 OSPF Opaque LSA Option
• RFC 2453 RIP v2
• RFC 2460 Internet Protocol, Version 6 (IPv6) Specification
• RFC 2461 Neighbor Discovery for IP Version 6 (IPv6)
• RFC 2463 Internet Control Message Protocol (ICMPv6) for the Internet Protocol Version 6 (IPv6) Specification
• RFC 2464 Transmission of IPv6 Packets over Ethernet Networks
• RFC 2474 DiffServ Precedence, including 12 queues/port
• RFC 2475 DiffServ Core and Edge Router Functions
• RFC 2526 Reserved IPv6 Subnet Anycast Addresses
• RFC 2597 DiffServ Assured Forwarding (AF)
• RFC 2598 DiffServ Expedited Forwarding (EF)
• RFC 2740 OSPF for IPv6
• RFC 2925 MIB for Remote Ping, Trace
• RFC 3176 sFlow
• RFC 3376 IGMP v3
• RFC 3484 Default Address Selection for Internet Protocol Version 6 (IPv6)
• RFC 3513 Internet Protocol Version 6 (IPv6) Addressing Architecture
• RFC 3569 draft‑ietf‑ssm‑arch‑06.txt PIM‑SSM PIM Source Specific Multicast
• RFC 3579 RADIUS EAP support for 802.1x
• RFC 6614 RadSec
• RFC 3618 Multicast Source Discovery Protocol (MSDP)
• RFC 3623 OSPF Graceful Restart
• RFC 4213 Basic Transition Mechanisms for IPv6 Hosts and Routers
• RFC 4291 IPv6 Addressing Architecture
• RFC 4443 ICMPv6 for the IPv6 Specification
• RFC 4541 IBMP and MLD snooping services
• RFC 4552 OSPFv3 Authentication
• RFC 4861 Neighbor Discovery for IPv6
• RFC 4862 IPv6 Stateless Address Autoconfiguration
• RFC 4915 MT‑OSPF
• RFC 5095 Deprecation of Type 0 Routing Headers
• RFC 5176 Dynamic Authorization Extensions to RADIUS
• RFC 5798 VRRPv3 for IPv6
• Draft‑ietf‑bfd‑base‑05.txt Bidirectional Forwarding Detection
• Draft‑ietf‑idr‑restart‑10.txt Graceful Restart Mechanism
• Draft‑ietf‑isis‑restart‑02 Restart Signaling for IS‑IS
• Draft‑ietf‑isis‑wg‑multi‑topology‑11 Multi Topology (MT) Routing in IS‑IS for BGP
• Internet draft‑ietf‑isis‑ipv6‑06.txt, Routing IPv6 with IS‑IS
• LLDP Media Endpoint Discovery (LLDP‑MED), ANSI/ TIA‑1057, draft 08
• PIM‑DM Draft IETF PIM Dense Mode draft‑ietf‑idmr‑ pimdm‑05.txt, draft‑ietf‑pim‑dm‑new‑v2‑04.txt

• RFC 1155 SMI
• RFC 1157 SNMPv1
• RFC 1212, RFC 1213, RFC 1215 MIB‑II, Ethernet‑Like MIB and TRAPs
• RFC 1493 Bridge MIB
• RFC 1643 Ethernet MIB
• RFC 1657 BGP‑4 MIB
• RFC 1724 RIPv2 MIB
• RFC 1850 OSPFv2 MIB
• RFC 1905 RFC 1907 SNMP v2c, SMIv2 and Revised MIB‑II
• RFC 2011 SNMPv2 for Internet Protocol using SMIv2
• RFC 2012 SNMPv2 for transmission control protocol using SMIv2
• RFC 2013 SNMPv2 for user datagram protocol suing SMIv2
• RFC 2096 IPv4 Forwarding Table MIB
• RFC 2287 System Application Packages MIB
• RFC 2570–2575 SNMPv3, user based security, encryption, and authentication
• RFC 2576 Coexistence between SNMP Version 1, Version 2, and Version 3
• RFC 2578 SNMP Structure of Management Information MIB
• RFC 2579 SNMP Textual Conventions for SMIv2
• RFC 2665 Ethernet‑like interface MIB
• RFC 2787 VRRP MIB
• RFC 2819 RMON MIB
• RFC 2863 Interface Group MIB
• RFC 2863 Interface MIB
• RFC 2922 LLDP MIB
• RFC 2925 Ping/Traceroute MIB
• RFC 2932 IPv4 Multicast MIB
• RFC 3413 SNMP Application MIB
• RFC 3414 User‑based Security model for SNMPv3
• RFC 3415 View‑based Access Control Model for SNMP
• RFC 3621 PoE‑MIB (PoE switches only)
• RFC 4188 STP and Extensions MIB
• RFC 4363 Definitions of Managed Objects for Bridges with Traffic Classes, Multicast Filtering, and VLAN extensions
• RFC 5643 OSPF v3 MIB support
• Draft – blumenthal – aes – usm ‑ 08
• Draft – reeder ‑ snmpv3 – usm ‑ 3desede ‑00
• Draft‑ietf‑bfd‑mib‑02.txt
• Draft‑ietf‑idmr‑igmp‑mib‑13
• Draft‑ietf‑idmr‑pim‑mib‑09
• Draft‑ietf‑idr‑bgp4‑mibv2‑02.txt – Enhanced BGP‑4 MIB
• Draft‑ietf‑isis‑wg‑mib‑07

• Debugging: CLI via console, Telnet, or SSH
• Diagnostics: Show and debug command, statistics
• Traffic mirroring (port)
• Traffic mirroring (VLAN)
• IP tools: Extended ping and trace
• Juniper Networks commit and rollback

• ACL‑based mirroring
• Mirroring destination ports per system: 4
  • LAG port monitoring
  • Multiple destination ports monitored to 1 mirror (N:1)
• Maximum number of mirroring sessions: 4
• Mirroring to remote destination (over L2): 1 destination VLAN

• FCC 47 CFR Part 15
• ICES‑003 / ICES‑GEN
• BS EN 55032
• BS EN 55035
• EN 300 386 V1.6.1
• EN 300 386 V2.2.1
• BS EN 300 386
• EN 55032
• CISPR 32
• EN 55035
• CISPR 35
• IEC/EN 61000 Series
• IEC/EN 61000‑3‑2
• IEC/EN 61000‑3‑3
• AS/NZS CISPR 32
• VCCI‑CISPR 32
• BSMI CNS 15936
• KS C 9835 (Old KN 35)
• KS C 9832 (Old KN 32)
• KS C 9610
• BS EN 61000 Series
• NEBS GR‑1089‑CORE, Issue 8
• British Telecommunications (BT) GS7
• Deutsche Telekom (DT) 1 TR 9
• IEEE1613 and IEEE 1613.1
• IEC 61850‑3 with IEC 61000‑6‑5
• EN50121‑4
• IEC 61000‑6‑1
• IEC 61000‑6‑3

• IEC 62368‑1:2014 (All country deviations): 2nd Edition: CB Scheme
• IEC 62368‑1:2018 (All country deviations): 3rd Edition: CB Scheme 
• EN 62368‑1:2014+A11:2017, EN IEC 62368‑1:2020+A11:2020
• BS EN 62368‑1:2014+A11:2017, BS EN IEC 62368‑1:2020+A11:2020 
• UL 62368‑1:2019
• CSA C22.2 No. 62368‑1:19
• UL 60950‑1:2007 
• CAN/CSA C22.2 No. 60950‑1‑07+ A1:2011+A2:2014

• AT&T TEER (ATIS‑06000015.03.2013)
• ECR 3.0.1
• ETSI ES 203 136 V.1.1.1
• Verizon TEEER (VZ.TPR.9205)

• Reduction of Hazardous Substances (ROHS) 6/6

• CLEI code

Juniper Networks is the leader in performance‑enabling services that are designed to accelerate, extend, and optimize your high‑ performance network. Our services allow you to maximize operational efficiency while reducing costs and minimizing risk, achieving a faster time to value for your network. Juniper Networks ensures operational excellence by optimizing the network to maintain required levels of performance, reliability, and availability. For more details, please visit https://www.juniper.net/gb/en/products.html.

Juniper Networks believes that connectivity is not the same as experiencing a great connection. Juniper's AI‑Native Networking Platform is built from the ground up to leverage AI to deliver the best and most secure user experiences from the edge to the data center and cloud. Additional information can be found at Juniper Networks (www.juniper.net) or connect with Juniper on X (Twitter), LinkedIn, and Facebook.

1000802 - 001 - EN SEPTEMBER 2024