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Interface Types and Configurations

Learn about the interfaces types on ACX7000 family of routers. The ACX7000 family of routers includes ACX7020, ACX7024, ACX7024X, ACX7100, ACX7332, ACX7348, and ACX7509 routers.

The ACX7000 family of routers support a range of interface types designed for edge, aggregation, and metro deployments. With support for multiple port types ranging from standard 1GbE to high-capacity 400GbE, the ACX7000 routers enable you to build networks that can evolve with growing subscriber numbers and service demands.

The interfaces on ACX7000 routers are represented using the et interface prefix. For more information about the port-to-interface mapping in ACX7000 routers, see Port Speed on ACX Routers.

Before configuring port speed, use the port checker tool to verify the supported configurations for ACX7000 routers, including information about unused ports. For more information, see Port Checker Tool.

Physical Interface Types

The ACX7000 family of routers supports various physical interface types to provide flexibility for different deployment scenarios in metro access and aggregation networks.

Table 1: Physical Interface Types Supported on ACX7000 Routers

Interface Type

Speed Description

SFP

1 Gbps

Standard 1GbE Ethernet interface commonly used for access links, customer premises equipment (CPE) connectivity, and low-bandwidth aggregation.

SFP+

10 Gbps

Widely deployed 10GbE interface for metro aggregation.

SFP28

25 Gbps

Used in high-capacity metro and access designs.

SFP56

50 Gbps

Used in high-capacity metro access, cell-site aggregation, and incremental upgrades from 25GbE.

QSFP+

40 Gbps

Can be used in native 40GbE mode or can be channelized into four 10GbE interfaces.

QSFP28

100 Gbps

Can be used in native 100GbE mode or can be channelized into four 25GbE interfaces.

QSFP56

400 Gbps

Used in links facing high-capacity metro-core interconnect and data centers. Supports breakout to multiple 100GbE and 50GbE lanes depending on the model.

Built-In Interfaces

The ACX7000 family of routers supports a wide range of interface types that are available as built-in ports. Several of these high-speed interfaces also support breakout operation, enabling channelization of a single physical port into multiple lower speed lanes. For example, you can have 4x25GbE, 4x10GbE, 2x50GbE, or 4x100GbE lanes depending on the transceiver and platform capabilities. These port features offer significant flexibility in how bandwidth is provisioned, enabling you to optimize port utilization, scale capacity incrementally, and support a mix of access, aggregation, and uplink requirements across diverse deployment scenarios.

Table 2: Built-In Interface Options for ACX7000 Routers

Model

1GbE (SFP)

10GbE (SFP+)

25GbE (SFP28)

40GbE (QSFP+)

50GbE (SFP56)

100GbE (QSFP28)

400GbE (QSFP56-DD)

ACX7100-32C

No

No

No

Yes

No

Yes

Yes

ACX7100-48L

No

Yes

Yes

Yes

Yes

Yes

Yes

ACX7024 and ACX7024X

Yes

Yes

Yes

Yes

No

Yes

No

ACX7332 (fixed FPC)

Yes

Yes

Yes

Yes

No

Yes

No

ACX7348 (fixed FPC)

Yes

Yes

Yes

Yes

No

Yes

No

ACX7300-16Y

Yes

Yes

Yes

No

Yes

No

No

ACX7300-2DC4C

No

No

No

Yes

No

Yes

Yes

ACX7020

Yes

Yes

Yes

Yes

Yes

Yes

Yes

ACX7509‑FPC‑20Y

Yes

Yes

Yes

No

Yes

No

No

ACX7509‑FPC‑16Y

No

No

No

Yes

No

Yes

No

ACX7509‑FPC‑4CD

No

No

No

No

Yes

Yes

Yes

For more information about the supported transceivers on ACX7000 routers, see Hardware Compatibility Tool.

Configuring Port Speed for Non-Channelized Interfaces

For a non-channelized interface, the port operates as a single high-speed link. The following configuration demonstrates how to set the speed of a non-channelized interface et-0/0/2 to 100 Gbps.

Breakout and Channelization

Breakout options on the ACX7000 routers enable network operators to adapt to diverse access and aggregation requirements, and scale services efficiently without additional hardware.

Table 3: Breakout Options for ACX7000 Routers
Platform

4x25GbE

4x10GbE

4x100GbE

2x100GbE

2x50GbE

8x50GbE

ACX7100-32C

Ports 0–31 and 32–35

Ports 0–31 and 32–35

Ports 32–35

Ports 32–35

Ports 0–31 and 32–35

Ports 32–35

ACX7100-48L

Ports 48–53

Ports 48–53

Ports 48–53

Ports 48–53

Ports 48–53

Ports 48–53

ACX7024 and ACX7024X

Ports 0–3

Ports 0–3

Ports 0–3

ACX7332 (Fixed FPC)

Ports 24–31

Ports 24–31

ACX7K3-FPC-2CD4C (FPC supported on ACX7332 and ACX7348)

Ports 0–5

Ports 0–5

Ports 0 and 2

Ports 0 and 2

ACX7348

Ports 24–31

Ports 24–31

ACX7509‑FPC‑16Y

Ports 0,1,4,5,8,9,12, and 13

Ports 0,1,4,5,8,9,12, and 13

ACX7509‑FPC‑4CD

Ports 0–3

Ports 0–3

Ports 0–3

ACX7509‑FPC‑20Y

To validate supported port speeds and breakout options for your ACX7000 platform, see Port Checker Tool.

Configuring Port Channelization

Port channelization divides a physical port into multiple logical sub-ports for efficient bandwidth utilization.

The following configuration demonstrates how to channelize the 100-Gbps interface et-0/0/2 into four 25‑Gbps sub-ports.

For more information, see Configure Port Speed for Channelized Interfaces.

Aggregated Ethernet Interfaces

Aggregated Ethernet (ae-) interfaces on ACX7000 routers provide link bundling capabilities by combining multiple physical interfaces into a single logical interface. Link bundling increases bandwidth, enhances resiliency, and simplifies network design by presenting multiple links as one logical entity.

These interfaces support both Layer 2 (L2) and Layer 3 (L3) operations and can leverage Link Aggregation Control Protocol (LACP) for dynamic link management. These features support scalable deployments across access and aggregation roles while ensuring redundancy and load balancing.

For more information about aggregated Ethernet interfaces and how to configure them, see Aggregated Ethernet Interfaces Overview.

Configuring Interfaces

This section introduces multiple approaches to VLAN-based L2 and L3 design, ranging from service‑provider-style encapsulations to enterprise configurations. This section compares flexible Ethernet services, VLAN trunking models, and different methods of delivering L3 connectivity over VLANs using IRB and physical interfaces.

Service Provider–Style Configurations Using Flexible Ethernet Services Encapsulation

This section describes a service provider–style interface configuration using flexible ethernet services encapsulation to support scalable, VLAN‑aware L2 services.

  1. Enable flexible ethernet services encapsulation.

  2. Enable Flexible VLAN tagging.

  3. Create a logical unit on the interface.

  4. Configure VLAN bridge encapsulation on the logical unit.

  5. Assign a VLAN ID to the logical unit.

  6. Finalize the logical unit configuration.

Enterprise‑Style Flexible VLAN Trunk Interface Configuration

This section explains an enterprise‑style configuration using flexible VLAN tagging to support multiple VLANs on a single interface.

  1. Enable flexible ethernet services encapsulation.

  2. Enable flexible VLAN tagging.

  3. Create a logical unit on the interface.

  4. Set the interface to L2 switching mode.

  5. Assign VLAN membership.

  6. Configure the interface as a trunk.

Layer 3 over VLAN Using an IRB Interface

Layer 3 over VLAN configuration involves creating an IRB interface with an IP address and associating it with a VLAN.

  1. Create an IRB interface.

  2. Associate VLAN with IRB.

Layer 3 over VLAN Using a Physical Interface

The following configuration demonstrates how to implement direct L3 routing over a VLAN on a physical interface.

  1. Enable flexible VLAN handling.

  2. Create a VLAN-based logical interface.

  3. Enable L3 routing.

  4. Enable MPLS on the VLAN-based interface.