
Section 1: Architecture
Lecture 1:Welcome
Lecture 2:CCNP Enterprise Certification
Lecture 3:Topic
Lecture 4:1.0 Architecture Part01
Lecture 5:1.0 Architecture Part02
Lecture 6:WAN Overlay Technologies
Lecture 7:Qos
Lecture 8:LAN & WAN Design option
Lecture 9:Multilayer Campus Design Part 01
Lecture 10:Multilayer Campus Design Part 02
Lecture 11:1.1.b High availability techniques such as redundancy, FHRP, and SSO
Lecture 12:Enterprise Network Next Generation High Availability SSO Feature
Lecture 13:1.2 Analyze design principles of a WLAN deployment
Lecture 14:Controller-Based Architecture Overview
Lecture 15:WLC Best practices
Lecture 16: Best Practices Summary
Lecture 17: On-Prem vs Cloud Deployment
Lecture 18:Add more cloud
Lecture 19:1.4 Cisco SDWAN
Lecture 20: SDWAN Architecture
Lecture 21: SDWAN Components Controllers
Lecture 22: SDWAN Data plan Devices
Lecture 23: 1.4b Traditional WAN vs SDWAN
Lecture 24: 1.5 Explain the working principles of the Cisco SD-Access solution
Lecture 25: LISP Locator ID and Separation Protocol
Lecture 26: VxLAN Virtual Extension LAN
Lecture 27: DNA supported Hardware & Summary
Lecture 28: 1.6 Qos
Lecture 29:Qos Design & Implementation Part01
Lecture 30: Qos Design & Implementation Part02
Lecture 31: Qos Design & Implementation Part03
Lecture 32: Wireless Qos
Lecture 33: 1.7 Catalyst 9300 Hardware walkthrough
Lecture 34: Catalyst 9300 ASIC details
Lecture 35: CEF & Adjacency Table
Lecture 36: TCAM
Explore Cisco's updated CCNP Enterprise track, moving from associate to expert across routing, security, wireless, and data center, with core exams and concentration labs.
Explore Cisco CCNP Enterprise fasttrack, a six-part course covering architecture, virtualization, infrastructure, security, and automation, with detailed topics and subtopics.
Explore LAN and WAN design options within a software defined network framework, focusing on DNA architecture, DNA center, and policy driven security. Compare traditional networks to DNA driven management.
Explore multilayer campus design with core, distribution, and access layers, connected to the Internet and data center, and moving toward a DNA-ready grid for scalable networks.
Explain high-availability techniques by examining redundancy protocols such as hsrp/vrrp, and gateway load balancing protocol glbp, with virtual ip and virtual mac, active-active and active-standby models, preemption, and tracking.
Explore high-availability features for campus networks, comparing layer 2 and layer 3 topologies, and learn how non-stop forwarding enables seamless active/standby switchover and upgrade without downtime.
Analyze the design and deployment of a wireless local area network, emphasizing controller-based architecture, control, data, and management planes, and plug-and-play provisioning with Prime Infrastructure and mobility service engines.
Compare controller-based and mobility-based architectures, explain roaming across access points, and review deployment options like mobility express, 5520/5840 WLCs, centralized and flex connect.
Explore Cisco SD-WAN concepts with a focus on the Esteban architecture, control plane decoupling, and the shift from traditional models, guided by three rules in this section.
Understand the sdwan architecture, its orchestration, management, control, and data planes; learn how data plane devices form full-mesh connections and how we manage enables unified deployment and monitoring.
Explore the three sd-wan controllers—vBond orchestration plane, vManage management plane, and vSmart control plane—and how they securely bring up fabric devices, centralize provisioning, and enforce policies.
Explore Cisco sd-wan data plane devices that move data through ipsec tunnels, support ospf and bgp, and enable zero touch provisioning and plug-and-play with application recognition and deep packet inspection.
Contrast traditional wan with sd-wan to show cloud-based control plane, simplified scalability, built-in security, and improved visibility for routing and ipsec.
Explain how Cisco SD-Access uses DNA fabric with underlay and overlay networks, three planes (management, control, data) and policy plane, enabling automation and analytics.
Explains vxlan encapsulation using ip-in-ip and udp, with inner and outer headers, mac-in-ip concepts, and lisp integration; edge nodes perform encapsulation within the fabric underlay and overlay.
Explore DNA supported hardware and how edge, border, and control plane devices form a unified fabric, enabling data, policy, and management planes via the DNA Center.
Learn qos across wired and wireless networks by classifying traffic, applying policies with MQC and Cisco common classification policy language keywords, and mapping to DCP marking.
Explore qos design and implementation, including DSCP and IP precedence marking, class of service, and class maps and policy maps to classify, mark, and prioritize real-time and streaming traffic.
Map priority queues and classes across 4/5/0/0, 6/5/0/0, and Nexus platforms, then configure thresholds and random early detection for weighted media conferencing, bulk data, and scavenger traffic.
Explore wireless qos concepts, including four service levels, collision avoidance mechanisms, and DCP mapping to user priorities and access categories, with practical mapping to best effort, background, and multimedia classes.
Explore the Cisco Catalyst 9300's RFID capability, flexible ICs, and the adp 2.0 unified access data plane, highlighting high performance, programmability, and extensive hardware features.
Explore tcam concepts and safe verification in Cisco networks, using show ip interface and show ip safe to verify interfaces, next-hop behavior, and forwarding resources for ip defense.
Explore virtualization basics and hypervisors, including host and guest operating systems, and server virtualization with VMware ESX. See how this approach saves hardware resources and enables centralized management.
Understand how a distributed virtual switch provides host-wide visibility across multiple hosts, linking vmnic, uplink, and VMkernel networks to manage traffic between guest operating systems and external networks.
Explore GRE encapsulation to create a direct tunnel between endpoints, not exposing intermediate devices, preserving private networks, and enabling security integration for encapsulated broadcast and multicast IP traffic.
Configure VRF and establish a GRE IPsec tunnel across three routers, assign IP addresses and a lookback, then enable the IGP for connectivity.
Configure an ipsec gre vpn by creating a key ring, crypto policy, and sam profile, then define a transform set and apply a crypto map with verification.
Verify vrf gre ipsec connectivity by pinging the tunnel, inspect phase one and phase two security associations, confirm inbound/outbound sa indices, and review crypto sessions for baseline verification.
Explore how Lisp maps endpoint identities to locations via a centralized database and control plane, enabling mobility and virtualization in campus fabrics with edge devices and border nodes.
examine infrastructure in section 3.0, focusing on layer two topics such as channel and rsvp, review ip services, and outline troubleshooting options in section 3.1.
Practice configuring a VTP domain across three switches, designate a VTP server, set domain and password, and verify replication and connectivity.
Conduct a VTP lab to configure trunking and encapsulation, switch between client and server modes, and verify dynamic or desirable trunk settings, VLAN learning, and pruning.
Explore etherchannel and port aggregation to boost throughput by bundling interfaces, with manual or lcp-based dynamic negotiation and per-application load balancing.
Engage in an etherchannel lab to configure and verify channel grouping on switch interfaces using a manual method and LCP protocol, including range commands, channel group numbers, and protocol negotiation.
Compare r.s.v.p. and rapid spanning tree protocol, explain loop prevention using root, designated, alternate, and backup ports, and highlight fast convergence.
Run a rapid spanning-tree protocol lab across switches 101, 102, and 103, enable rapid BPDU mode, and verify root bridge, designated ports, and port states (blocking, forwarding).
Map insurgents to MST instances and configure instance names, ranges, and priorities in a hands-on MST lab for CCNP Enterprise.
Learn how OSPF forms neighbor relationships and elects a DR/BDR in a lab. Observe database synchronization, master/slave roles, LSA exchange, authentication, and area zero network configuration.
Explore OSPF network types such as point-to-point, point-to-multipoint, and broadcast, and how metrics guide route selection. Learn how passive interfaces prevent updates and neighbor formation, with a lab-focused configuration walkthrough.
Demonstrate configuring OSPF across area zero and area 20 on switches, set default network types, enable passive interfaces, and verify neighbor relationships while advertising and testing networks.
Learn network assurance and troubleshooting by enabling protocol-level debugging on Cisco routers, using conditional debug to manage CPU load, and analyzing ICMP and IP packet details from live pings.
Explore how traceroute uses UDP probes and ICMP responses to map network hops, diagnose paths, and interpret time-exceeded and destination-unreachable messages, including extended probe options.
Learn to configure snmp with versions 1, 2, and 3, define managers and groups with authentication and encryption, set community strings, and verify in lab with a switch and router.
Explore configuring and verifying an SNMP lab setup with a switch and host, including ACL-based access, community strings, traps, and performing an SNMP walk to retrieve data.
Demonstrate performing an snmp walk to collect interface details, IP addresses, and interface status across a network, and saving and reviewing the output.
Learn how net flows capture who, where, what, when, and how much traffic through versioned flow records, comparing version five and version nine for capabilities, limitations, and resource use.
Learn traditional and flexible netflow configuration, including templates, exporters, and flow records, to analyze traffic using key versus non-key fields and gain application visibility.
Configure flexible netflow by creating an exporter and a flow record with match criteria (application, destination, IP, routing, transport), create and apply a monitor on the interface and verify collection.
Explore Cisco DNA Center's assurance workflow, from design and policy to provisioning and proactive troubleshooting, with high telemetry and ICE integration for end-to-end network health.
Master automation concepts using Netconf and Restconf in section 6, as the lecture advances through the topic and references prior sections for deeper context.
This lecture covers lines and password protection on Cisco routers, including line security, enable secret vs plaintext passwords, and enabling service password encryption with authentication server labs.
Configure the switch for Tripoli with interface-based authentication, authorization, and accounting using a radius server and ICE, applying policies across ports connected to the main, data, and access points.
Explore standard and extended access control lists, their match criteria, and how wildcards and remarks control traffic by source, destination, protocol, and service.
Learn to configure standard access control lists, create named ACLs, deny and permit specific networks, apply to interfaces, and validate reachability with ping while blocking loopback addresses.
Learn to configure extended access control lists to permit specific source and destination IPs, use host and network entries, and apply policies inbound or outbound with implicit denial.
Apply a default control plane policy using class maps in a policy map to limit and drop control plane traffic, protecting the CPU.
Explore API security in enterprise networks by leveraging Cisco's big secret for context-aware, publisher-subscriber integration across IoT, wired and wireless endpoints, and cloud security services.
Learn the basics of wireless network security, including authentication to access points, encryption and privacy, data integrity with message authentication, and protection against rogue devices and attacks.
Explore the evolution of wireless authentication from weak encryption to secure, certificate-based EAP methods featuring outer and inner tunnels.
Explore security design related to defense and next-generation firewall traffic in the final subsection of section five, and discuss these topics one by one.
Delve into security design model that expands the perimeter to cloud resources, enables local breakout, and uses cloud security providers and endpoint defenses to mitigate malware, phishing, and DNS threats.
Explore threat defense and endpoint security, highlighting advanced malware protection, full visibility, and automated defense across Firepower, ICE, AMP Cloud, and Umbrella.
Explore reconnaissance with nmap to perform host discovery and port scanning, including udp scans and selective port ranges, identify live hosts and open or closed ports, and review subnet details.
Defend networks with Cisco firepower by applying talos-updated IPS signatures and dropping detected threats, then analyze intrusion events in FMC to validate policies.
Explore how TrustSec and MACsec rely on classification, dynamic tagging, and inline security group tagging propagation across devices, enabling automated policy enforcement on firewalls, routers, and switches.
Explore 802.1X with MAB (mac address based authentication) and WebAuth, detailing authentication flow, change of authorization, and downloadable ACLs that grant access after successful authorization.
Learn to construct a valid JSON object in Python by importing json, building a dictionary with name, age, and address, and printing the JSON output.
Explore YANG data modeling language and its use with XML and JSON, showing a human-readable, reusable program that configures devices across vendors via a common model and OpenConfig standards.
learn about the epa for Cisco management and explore how the api for vManage enables centralized network control.
Explore how Cisco DNA Center glues internet-based infrastructure to an open platform, enabling API-driven integration with IT management and security monitoring. Use the REST API for health and software updates.
1.1 Explain the different design principles used in an enterprise network
1.1.a Enterprise network design such as Tier 2, Tier 3, and Fabric Capacity planning
1.1.b High availability techniques such as redundancy, FHRP, and SSO
1.2 Analyze design principles of a WLAN deployment
1.2.a Wireless deployment models (centralized, distributed, controller-less, controller based, cloud, remote branch)
1.2.b Location services in a WLAN design
1.3 Differentiate between on-premises and cloud infrastructure deployments
1.4 Explain the working principles of the Cisco SD-WAN solution
1.4.a SD-WAN control and data planes elements
1.4.b Traditional WAN and SD-WAN solutions
1.5 Explain the working principles of the Cisco SD-Access solution
1.5.a SD-Access control and data planes elements
1.5.b Traditional campus interoperating with SD-Access
1.6 Describe concepts of wired and wireless QoS
1.6.a QoS components
1.6.b QoS policy
1.7 Differentiate hardware and software switching mechanisms
1.7.a Process and CEF
1.7.b MAC address table and TCAM
1.7.c FIB vs. RIB
2.0 Virtualization
10%
2.1 Describe device virtualization technologies
2.1.a Hypervisor type 1 and 2
2.1.b Virtual machine
2.1.c Virtual switching
2.2 Configure and verify data path virtualization technologies
2.2.a VRF
2.2.b GRE and IPsec tunneling
2.3 Describe network virtualization concepts
2.3.a LISP
2.3.b VXLAN
3.0 Infrastructure
30%
3.1 Layer 2
3.1.a Troubleshoot static and dynamic 802.1q trunking protocols
3.1.b Troubleshoot static and dynamic EtherChannels
3.1.c Configure and verify common Spanning Tree Protocols (RSTP and MST)
3.2 Layer 3
3.2.a Compare routing concepts of EIGRP and OSPF (advanced distance vector vs. linked state, load balancing, path selection, path operations, metrics)
3.2.b Configure and verify simple OSPF environments, including multiple normal areas, summarization, and filtering (neighbor adjacency, point-to-point and broadcast network types, and passive interface)
3.2.c Configure and verify eBGP between directly connected neighbors (best path selection algorithm and neighbor relationships)
3.3 Wireless
3.3.a Describe Layer 1 concepts, such as RF power, RSSI, SNR, interference noise, band and channels, and wireless client devices capabilities
3.3.b Describe AP modes and antenna types
3.3.c Describe access point discovery and join process (discovery algorithms, WLC selection process)
3.3.d Describe the main principles and use cases for Layer 2 and Layer 3 roaming
3.3.e Troubleshoot WLAN configuration and wireless client connectivity issues
3.4 IP Services
3.4.a Describe Network Time Protocol (NTP)
3.4.b Configure and verify NAT/PAT
3.4.c Configure first hop redundancy protocols, such as HSRP and VRRP
3.4.d Describe multicast protocols, such as PIM and IGMP v2/v3
4.0 Network Assurance
10%
4.1 Diagnose network problems using tools such as debugs, conditional debugs, trace route, ping, SNMP, and syslog
4.2 Configure and verify device monitoring using syslog for remote logging
4.3 Configure and verify NetFlow and Flexible NetFlow
4.4 Configure and verify SPAN/RSPAN/ERSPAN
4.5 Configure and verify IPSLA
4.6 Describe Cisco DNA Center workflows to apply network configuration, monitoring, and management
4.7 Configure and verify NETCONF and RESTCONF
5.0 Security
20%
5.1 Configure and verify device access control
5.1.a Lines and password protection
5.1.b Authentication and authorization using AAA
5.2 Configure and verify infrastructure security features
5.2.a ACLs
5.2.b CoPP
5.3 Describe REST API security
5.4 Configure and verify wireless security features
5.4.a EAP
5.4.b WebAuth
5.4.c PSK
5.5 Describe the components of network security design
5.5.a Threat defense
5.5.b Endpoint security
5.5.c Next-generation firewall
5.5.d TrustSec, MACsec
5.5.e Network access control with 802.1X, MAB, and WebAuth
6.0 Automation
15%
6.1 Interpret basic Python components and scripts
6.2 Construct valid JSON encoded file
6.3 Describe the high-level principles and benefits of a data modeling language, such as YANG
6.4 Describe APIs for Cisco DNA Center and vManage
6.5 Interpret REST API response codes and results in payload using Cisco DNA Center and RESTCONF
6.6 Construct EEM applet to automate configuration, troubleshooting, or data collection
6.7 Compare agent vs. agentless orchestration tools, such as Chef, Puppet, Ansible, and SaltStack