Begin by defining the services the router must provide. Upstream peering, subscriber termination, access routing, and management connectivity place different demands on hardware.

• Upstream edge: Evaluate Border Gateway Protocol (BGP) peers, received routes, filtering policies, and recovery after session changes.
• Subscriber services: Assess Point-to-Point Protocol over Ethernet (PPPoE) sessions, queues, firewall processing, and connection tracking.
• Aggregation: Match interface density and uplink capacity to the traffic arriving from access equipment.
• Remote sites: Consider power options, mounting, temperature, physical access, and replacement logistics.

The following hardware specifications provide a starting point. The deployment roles are engineering candidates to evaluate, rather than guaranteed capacity assignments.

A higher model number or faster interface does not establish proportional application performance. Compare processing architecture, available memory, forwarding behavior, and the features your configuration will use.

An RB platform can be appropriate where the measured workload fits a compact device. Examples include customer routing, small access sites, management networks, and deployments with limited space.

The RB5009UG+S+IN combines passive cooling with DC jack, terminal, and PoE-in power options. These characteristics can be useful where installation conditions differ from a conventional equipment rack.

Its single 10G SFP+ port deserves attention during topology planning. A site requiring separate 10G upstream and downstream connections needs a different interface arrangement, even if its processing workload is modest.

Evaluate each RB model individually. The RB5009’s specifications and capabilities should not be applied to older or smaller RouterBOARD devices.

Evaluate CCR models when your design requires greater interface density, more memory, or additional processing resources. The CCR2004-16G-2S+ provides a copper-heavy layout, while the CCR2116 adds more CPU cores, memory, and 10G interfaces.

The CCR2216 addresses a different connectivity requirement through 25G and 100G ports. It uses the same CPU model, core count, and nominal frequency as the CCR2116, so its higher-speed interfaces should not be interpreted as an equivalent increase in CPU processing capacity.

The CCR2004-16G-2S+, CCR2116, and CCR2216 include dual power supplies. This can reduce exposure to a power-supply failure, but router redundancy still requires separate devices and usable alternate paths.

MikroTik publishes test results for different packet sizes and configurations. Those results are more useful than a single headline throughput figure because they show how forwarding behavior changes with the workload.

Review the test conditions alongside your planned firewall rules, queues, subscriber services, and traffic mix. A fast-path result does not establish capacity for a configuration performing additional processing.

The CCR2116 and CCR2216 support Layer 3 hardware offloading. Whether traffic can use that path depends on the supported features and configuration. Do not assume that all subscriber, security, or overlay processing receives the same acceleration.

Validate the complete service configuration. A router can have sufficient interface bandwidth while reaching a processing limit elsewhere.

Build a requirements profile before selecting hardware. Include busy-hour traffic, packet rates, route count, subscriber sessions, and the services enabled on the device.

• Routing: Record BGP peers, received routes, policy complexity, and required recovery behavior.
• Subscriber processing: Inventory sessions, queues, connection tracking, and address translation requirements.
• Connectivity: Count uplinks, downstream connections, management interfaces, and spare ports.
• Operations: Review power, cooling, optics, spares, monitoring, and maintenance access.
• Failure capacity: Determine the workload remaining equipment must carry after a router or link fails.

For example, two routers sharing traffic during normal operation may each need to carry the entire affected workload after a failure. Evaluate that condition before deciding that normal utilization leaves enough headroom.

Test the selected model with the intended RouterOS release, representative traffic, and production features. Observe total and per-core CPU load, memory use, packet loss, latency, and queue behavior.

Include route changes, subscriber reconnections, and failover tests where those functions apply. A steady-state throughput test alone does not show how the router behaves during recovery.