IT Certification
Cisco 300-420 ENSLD Real Exam Questions
Last Update: 03 Oct 2023$39.00
Guarantee your 300-420 ENSLD exam success with examkiller's study guide. The 300-420 ENSLD practice test questions are developed by...Description
Guarantee your 300-420 ENSLD exam success with examkiller's study guide. The 300-420 ENSLD practice test questions are developed by experiences Cisco Certification Professionals who working in todays prospering companies and Cisco exam data center.
Exam Number: 300-420 ENSLD
Exam Title: Designing Cisco Enterprise Networks (ENSLD)
Format: Single and Multiple Choice
Duration: 90 Minutes
Number of Questions: 60
Origin Provider: ExamKiller
Total Questions: 242 QAs
Type: Real Exam Questions
Guarantee: 100% Pass Guarantee
Demo: Click Here for Check Demo
Cisco 300-420 ENSLD Exam Objectives
25% 1.0 Advanced Addressing and Routing Solutions
1.1 Create structured addressing plans for IPv4 and IPv6
1.2 Create stable, secure, and scalable routing designs for IS-IS
1.3 Create stable, secure, and scalable routing designs for EIGRP
1.4 Create stable, secure, and scalable routing designs for OSPF
1.5 Create stable, secure, and scalable routing designs for BGP
1.5.a Address families
1.5.b Basic route filtering
1.5.c Attributes for path preference
1.5.d Route reflectors
1.5.e Load sharing
1.6 Determine IPv6 migration strategies
1.6.a Overlay (tunneling)
1.6.b Native (dual-stacking)
1.6.c Boundaries (IPv4/IPv6 translations)
25% 2.0 Advanced Enterprise Campus Networks
2.1 Design campus networks for high availability
2.1.a First Hop Redundancy Protocols
2.1.b Platform abstraction techniques
2.1.c Graceful restart
2.1.d BFD
2.2 Design campus Layer 2 infrastructures
2.2.a STP scalability
2.2.b Fast convergence
2.2.c Loop-free technologies
2.2.d PoE and WoL
2.3 Design multicampus Layer 3 infrastructures
2.3.a Convergence
2.3.b Load sharing
2.3.c Route summarization
2.3.d Route filtering
2.3.e VRFs
2.3.f Optimal topologies
2.3.g Redistribution
2.4 Describe SD-Access Architecture (underlay, overlay, control and data plane, automation, wireless, and security)
2.5 Describe SD-Access fabric design considerations for wired and wireless access (overlay, fabric design, control plan design, border design, segmentation, virtual networks, scalability, over the top and fabric for wireless, multicast)
20% 3.0 WAN for Enterprise Networks
3.1 Compare WAN connectivity options
3.1.a Layer 2 VPN
3.1.b MPLS Layer 3 VPN
3.1.c Metro Ethernet
3.1.d DWDM
3.1.e 4G/5G
3.1.f SD-WAN customer edge
3.2 Design site-to-site VPN
3.2.a Dynamic Multipoint VPN (DMVPN)
3.2.b Layer 2 VPN
3.2.c MPLS Layer 3 VPN
3.2.d IPsec
3.2.e Generic Routing Encapsulation (GRE)
3.2.f Group Encrypted Transport VPN (GET VPN)
3.3 Design high availability for enterprise WAN
3.3.a Single-homed
3.3.b Multihomed
3.3.c Backup connectivity
3.3.d Failover
3.4 Describe Cisco SD-WAN Architecture (orchestration plane, management plane, control plane, data plane, on-boarding and provisioning, security)
3.5 Describe Cisco SD-WAN design considerations (control plane design, overlay design, LAN design, high availability, redundancy, scalability, security design, QoS and multicast over SD-WAN fabric)
20% 4.0 Network Services
4.1 Select appropriate QoS strategies to meet customer requirements (DiffServ, IntServ)
4.2 Design end-to-end QoS policies
4.2.a Classification and marking
4.2.b Shaping
4.2.c Policing
4.2.d Queuing
4.3 Design network management techniques
4.3.a In-band vs. out-of-band
4.3.b Segmented management networks
4.3.c Prioritizing network management traffic
4.4 Describe multicast routing concepts (source trees, shared trees, RPF, rendezvous points)
4.5 Design multicast services (SSM, PIM bidirectional, MSDP)
10% 5.0 Automation
5.1 Choose the correct YANG data model set based on requirements
5.2 Differentiate between IETF, Openconfig, and Cisco native YANG models
5.3 Differentiate between NETCONF and RESTCONF
5.4 Describe the impact of model-driven telemetry on the network
5.4.a Periodic publication
5.4.b On-change publication
5.5 Compare dial-in and dial-out approaches to model-driven telemetry