The Cisco 300-540 exam validates your ability to design and implement service provider cloud network infrastructure. This certification is part of the Cisco Certified Network Professional and Cisco Certified Network Professional Service Provider paths, targeting engineers who architect and deploy cloud solutions in service provider environments. This page guides you through the exam structure, core topics, and effective preparation strategies to help you succeed.
Use this topic map to guide your study for Cisco 300-540 (Designing and Implementing Cisco Service Provider Cloud Network Infrastructure v1.0) within the Cisco Certified Network Professional and Cisco Certified Network Professional Service Provider path.
The 300-540 exam combines multiple-choice and scenario-based questions to assess both foundational knowledge and applied decision-making in real-world service provider cloud contexts.
Questions progress in difficulty, moving from foundational definitions to complex multi-component scenarios that reflect actual service provider deployment challenges.
Build a structured study plan that maps each topic area to measurable learning outcomes. Combine concept review with hands-on practice and timed assessments to develop both depth and speed.
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Visit the exam page to download the PDF, Online Practice Test, or get a Bundle Discount offer for both formats: Designing and Implementing Cisco Service Provider Cloud Network Infrastructure v1.0.
Cloud Interconnect and High Availability typically account for a significant portion of the exam, as they directly impact service provider SLAs and customer experience. However, all five domains are tested, so a balanced study approach is essential. Review the official exam blueprint to confirm current topic weightings.
Virtualized architecture decisions, such as hypervisor choice and VM placement, directly affect your security posture and compliance options. For example, network function virtualization (NFV) deployments require careful segmentation and encryption strategies to isolate tenant traffic. Understanding this relationship helps you make trade-off decisions between performance and security in design scenarios.
Hands-on lab work with cloud orchestration platforms, virtual network function deployment, and multi-cloud connectivity tools is highly beneficial. Prioritize labs that involve designing redundancy, configuring service assurance monitoring, and troubleshooting inter-cloud link failures. Even simulated environments help reinforce architectural concepts tested on the exam.
Many candidates rush through scenario questions without fully reading all constraints and requirements, leading to incomplete or suboptimal solutions. Others overlook cost or operational complexity trade-offs that the question emphasizes. Take time to identify all requirements, evaluate multiple options, and justify your choice based on the specific context provided.
Dedicate the first 2-3 days to targeted review of weak topic areas identified in practice tests. Spend the next 2-3 days on lighter review and one final timed practice test. In your last 1-2 days, focus on reviewing question explanations and reinforcing key definitions and decision frameworks rather than learning new material. Ensure adequate rest the night before the exam.
Refer to the exhibit.

Refer to the exhibit. An engineer must configure an IPsec VPN connection between site 1 and site 2. The indicated configuration was applied to router R1; however, the tunnel fails to come up. Which command must be run on R1 to resolve the issue?
For a site-to-site IPsec VPN, each peer must point to the reachable IP address of the remote VPN endpoint---that is, the IP address on the WAN/Internet-facing interface of the remote router.
From the diagram:
R1 outside (toward Internet): 192.168.10.1
R2 outside (toward Internet): 192.168.20.2
Inside LANs:
Site 1: 10.1.0.0/24
Site 2: 10.2.0.0/24
The crypto map on R1 uses:
crypto map mymap 10 ipsec-isakmp
set transform-set myset
match address 101
set peer <REMOTE_PEER_IP>
The <REMOTE_PEER_IP> must be the IP address where R1 can actually reach the IPsec peer, which is R2's Internet-facing interface 192.168.20.2.
If the peer were configured with a LAN IP such as 10.2.0.1 (site 2's internal gateway), IKE packets would never reach the remote router because that address is not routable over the Internet.
Therefore, the correct command to bring up the VPN is:
set peer 192.168.20.2
Option A (10.1.0.1) -- local LAN IP (R1's side), not the remote endpoint.
Option C (192.168.10.1) -- R1's own WAN IP, not the remote peer.
Option D (10.2.0.1) -- remote LAN IP, not reachable directly over the Internet.
Refer to the exhibit.

Refer to the exhibit. An engineer is troubleshooting a Cisco NFVI issue where the management node fails to start. Which service must be restarted to resolve the issue?
A. docker-kibana B. docker C. kube-apiserver D. docker-cobbler
In Cisco NFVI, the management node relies heavily on Docker containers for:
NFVIS management functions
VIM services
Orchestration components
If the management node fails to start and the system shows:
docker.service: inactive (dead)
...then all Docker-based platform services also fail to start.
The correct recovery action is to restart the Docker engine:
systemctl restart docker
This brings up:
All NFVI-required Docker containers
Management services
REST APIs and cluster components
Why other answers are incorrect:
docker-kibana Only affects Kibana logging container
docker-cobbler Used for provisioning, not core NFVI management
kube-apiserver Part of Kubernetes cluster, but relies on Docker; restarting it won't help until Docker is running
Thus, the correct answer is B. docker.
Refer to the exhibit.


Refer to the exhibit. An engineer is troubleshooting an issue where switch LEAF-SW-1 and switch LEAF-SW-2 receive corrupted forwarding and learning information about each other. LEAF-SW-1 and LEAF-SW-2 are configured with BGP EVPN VTEP. Which action resolves the issue?
A. On each switch, run the delete suppress-arp command against interface nve1. B. On each switch, configure a different secondary IP address against interface loopback0. C. On LEAF-SW-1, run the host-reachability protocol bgp command against interface nve1. D. On each switch, ensure the same BGP router ID is configured.
In a VXLAN BGP EVPN fabric, each VTEP (NVE interface) must use BGP EVPN as the host-reachability protocol so that MAC/IP information and VTEP reachability are exchanged through the control plane.
From the exhibit:
LEAF-SW-1 -- interface nve1
source-interface loopback0
No host-reachability protocol bgp
Host Learning Mode: Data-Plane in show nve interface
LEAF-SW-2 -- interface nve1
source-interface loopback0
host-reachability protocol bgp configured
This mismatch causes one VTEP to rely on data-plane flood-and-learn, while the other uses EVPN BGP control-plane learning, leading to inconsistent and ''corrupted'' MAC/IP and ARP/ND information between the leaf switches.
The fix is to configure LEAF-SW-1 to also use BGP for host reachability:
interface nve1
host-reachability protocol bgp
Options B and D are incorrect because anycast VTEP designs intentionally share the same primary loopback IP while using different secondary IPs and unique BGP router IDs. Option A (removing suppress-arp) does not correct the control-plane mismatch.
Therefore, enabling host-reachability protocol bgp on LEAF-SW-1 (Option C) resolves the issue.
Refer to the exhibit.

Refer to the exhibit. An engineer must configure dual-homing with single active redundancy in a BGP EVPN VXLAN fabric. Which command must be run on the leaf router to complete the EVPN Ethernet segment configuration?
In a BGP EVPN VXLAN multi-homing design, Ethernet Segment Identifiers (ESIs) are used to represent a set of links from one or more leaf switches to the same downstream device (such as a CE, firewall, or aggregation switch). By default, when multiple leafs share the same ESI, the EVPN design supports all-active redundancy, where all participating leafs can forward traffic for that Ethernet segment simultaneously.
However, some use cases---like connecting to devices that do not support multipath forwarding or for strict active/standby redundancy---require single-active multi-homing. In single-active mode, only one leaf in the Ethernet segment forwards traffic at any time; the other leaf(s) act as standby and only take over if the active node fails. This behavior is explicitly controlled in the EVPN Ethernet-segment configuration.
On Cisco platforms for EVPN VXLAN fabrics, this is configured under the l2vpn evpn ethernet-segment stanza using the command:
l2vpn evpn ethernet-segment 1
identifier type 0 01.01.01.10.10.10.10.10.10.10
redundancy single-active
identifier type 0 ... defines the ESI for the multi-homed connection.
redundancy single-active specifies that only one leaf in that ESI is allowed to be active at a time, thus enabling dual-homing with single-active redundancy.
The other options do not relate to Ethernet-segment redundancy mode:
B . default-gateway advertise is used in EVPN anycast gateway configurations to advertise the default gateway MAC/IP, not for ESI redundancy.
C . replication-type static is associated with multicast or ingress replication behavior for VXLAN VTEPs, not Ethernet-segment redundancy.
D . vlan configuration 101 is a VLAN configuration context command and has no effect on EVPN ESI redundancy.
Which two tools should be used to manage container orchestration? (Choose two.)
A. Docker B. VMware vCenter C. Cisco vManage D. Kubernetes E. Cisco vSmart
Comprehensive and Detailed Explanation From Exact Extract from my knowledge of Designing and Implementing Cisco Service Provider Cloud Network Infrastructure Outlines without Any External URL or Links: Container orchestration is the automated management of container lifecycle tasks such as deployment, scaling, failover, and updates. In Cisco cloud and NFV design guidance, typical orchestration platforms include Docker (with Swarm) and Kubernetes, which integrate with Cisco networking and security for cloud-native workloads.
Docker provides the container runtime and can also perform basic orchestration through Docker Swarm mode, managing multi-container, multi-host deployments.
Kubernetes is a full-featured orchestration system that automates deployment, scaling, and operations of application containers across clusters. It is the de-facto standard used with Cisco Container Platform and other Cisco cloud solutions.
VMware vCenter, Cisco vManage, and Cisco vSmart focus on virtual machines or SD-WAN control, not container orchestration. Therefore, the correct tools are Docker and Kubernetes (A, D).