CCNP Enterprise study materials
CCNP Enterprise study resources

CCNP Enterprise study plan

CCNP Enterprise · Give each week a clear focus.

8 weeks · About 6 hours per week

Week 1

Architecture

  • Draw a three-tier campus topology and label the L2/L3 boundary, STP root placement, and where FHRP and routing adjacencies live.

  • Compare OSPF area types (backbone, stub, totally stubby, NSSA, totally NSSA) and state which LSAs each one suppresses.

  • Map a PIM-SM multicast flow from first-hop router to last-hop router and identify the role of the rendezvous point and the source tree.

  • Explain the SD-WAN architecture in terms of controller, underlay, and overlay, and describe how OMP distributes routes and policy.

  • Distinguish StackWise, VSS, and vPC at the control-plane and data-plane level and give one failure scenario for each.

Your checkpoint

A one-page annotated campus topology (hand-drawn or digital) covering OSPF areas, FHRP, STP root, and multicast RP, plus a 10-question self-quiz scored at or above 8/10.

Week 2

Virtualization

  • Build a comparison table of VLAN, VXLAN, LISP, and GRE showing encapsulation header, identifier space, and control plane used.

  • Trace a packet through a VXLAN fabric step by step: ingress VTEP encap, underlay transit, egress VTEP decap, and where the distributed anycast gateway answers ARP.

  • Describe SD-Access fabric roles (control-plane node, edge node, border node, fusion router) and explain which node performs which lookup.

  • Explain vPC peer-link and peer-keepalive functions, then walk through what happens when the peer-link fails versus when the keepalive fails.

  • Compare hypervisor-level overlays with network-level overlays and state one operational trade-off for each.

Your checkpoint

A whiteboard-style VXLAN packet walk with all four headers drawn and annotated, plus a 10-question virtualization self-quiz scored at or above 8/10.

Week 3

Infrastructure

  • Configure and verify a multi-area OSPFv2 topology across at least three routers in a virtual lab and confirm adjacency states and LSDB contents.

  • Configure eBGP peering with a route reflector and prove best-path selection by forcing three different tie-break steps.

  • Implement HSRP or VRRP with preemption and object tracking, then trigger a tracked-object failure and capture the failover.

  • Configure EtherChannel with LACP in both active/passive modes and explain how the hashing algorithm affects a specific flow.

  • Tune EIGRP or OSPF metrics with offset-list or distribute-list so that a specific prefix takes an engineered backup path, and verify with traceroute.

Your checkpoint

A running virtual lab (EVE-NG, GNS3, or CML) with three OSPF areas plus an eBGP peering, captured show output proving adjacency, LSDB, and a successful failover.

Week 4

Network Assurance

  • Configure syslog to a collector, SNMPv3 with auth and priv, and NetFlow export on a lab device, then verify each data stream arrives.

  • Design an IP SLA probe (ICMP echo plus jitter) and interpret the resulting statistics to declare a path degraded.

  • Compare SNMP polling with model-driven telemetry (gNMI/gRPC with YANG models) on cadence, scale, and data fidelity.

  • Use SPAN or ERSPAN to capture a specific flow and analyze it in Wireshark, isolating at least one retransmission or MTU issue.

  • Walk the Catalyst Center assurance workflow from client onboarding failure to root-cause view and list the evidence each screen contributes.

Your checkpoint

A Wireshark capture plus a written root-cause analysis of an injected fault (for example an MTU black hole or a unidirectional routing loop), citing evidence from at least three sources such as syslog, IP SLA, and NetFlow.

Week 5

Security

  • Configure 802.1X with MAB fallback on a switch port and verify authentication and authorization for both a supplicant and a non-supplicant device.

  • Explain how SGTs are propagated inline versus via SXP and how an SGACL enforces policy between two groups.

  • Build an IKEv2 site-to-site IPsec tunnel and verify phase 1 and phase 2 status plus encrypted traffic flow.

  • Describe MACsec on a wired link: where encryption terminates, key agreement, and the effect on an inline capture.

  • Compare Cisco ISE deployment models (standalone, distributed, and pxGrid integration) and match each to a scale scenario.

Your checkpoint

Lab notes with 802.1X plus MAB working on one port and an IKEv2 IPsec tunnel up, including pasted show and debug output for both.

Week 6

Automation

  • Write a Python script using requests or netmiko to collect show ip interface brief from two devices and parse the output into structured data.

  • Author an Ansible playbook that pushes a configuration change with the ios_config module and verifies it with ios_command.

  • Query a device over NETCONF or gNMI using a specific YANG model and extract one operational value.

  • Write a short comparison of RESTCONF, NETCONF, and gNMI covering encoding, transport, and the use case each fits best.

  • Explain how a Python or EEM-based compliance check compares running config against a golden template and flags drift.

Your checkpoint

A repository containing one Python task, one Ansible playbook, and one NETCONF or gNMI task, each with a README showing captured output from a live or virtual device.

Week 7

Architecture & Virtualization & Infrastructure

  • Re-drill the four heaviest domains using missed practice questions, re-teaching each concept from primary documentation rather than memory.

  • Redraw the VXLAN packet walk and the campus topology from memory and diff against your week 1 and week 2 artifacts.

  • Reconfigure the one lab scenario that failed in week 3 until it passes twice in a row without notes.

  • Build a one-page decision table for routing protocol selection, overlay choice, and first-hop redundancy based on scenario cues.

Your checkpoint

A personal error log of at least 30 missed questions, each tagged to a domain and closed out with a one-sentence correction and a source citation.

Week 8

Network Assurance & Security & Automation

  • Sit two full-length timed practice exams under exam conditions with no pauses or notes.

  • Re-teach every missed item from domains 4, 5, and 6 until you can explain the concept aloud without prompts.

  • Review the week 7 error log end to end and confirm each entry is genuinely closed.

  • Rehearse exam-day logistics: time-per-question budget, flagging strategy, and review-pass plan.

Your checkpoint

Two consecutive full-length practice exams scored at or above 85%, with a written correction for every missed question.

Milestones

Week 2: Deliver a VXLAN or SD-Access packet walk on a whiteboard in under 10 minutes with no notes, and score at or above 8/10 on the virtualization self-quiz.

Week 4: Score at or above 75% on a timed 40-question assessment drawn only from domains 1 through 4, with no single domain below 65%.

Week 6: Run all three automation deliverables (Python, Ansible, NETCONF or gNMI) end to end from a clean checkout against a live or virtual device.

Week 8: Score at or above 85% on two consecutive full-length timed practice exams, with every missed question documented and corrected.