This course is primarily intended for:
– Network support technicians, Network Administrators, Mid-level engineers
– Individuals preparing for the ENCOR #350-401 exam
The knowledge and skills that a learner must have before attending this course are as follows:
On completion of this course, participants should be familiar with:
– Concepts related to how network traffic is forwarded through a router or switch architecture.
– How switches prevent forwarding loops while allowing for redundant links with the use of Spanning Tree Protocol (STP) and Rapid Spanning Tree Protocol (RSTP).
– Multiple Spanning Tree (MST) protocol.
– Features such as VTP, DTP, and EtherChannel for switch-to-switch connectivity.
– The logic of the programming of the Routing Information Base (RIB). Also, the differences between common routing protocols and common concepts related to static routes.
– The underlying mechanics of the EIGRP routing protocol, the path metric calculations, the failure detection mechanisms and techniques for optimizing the operations of the routing protocol.
– The core concepts of OSPF and the basics in establishing neighborships and exchanging routes with other OSPF routers.
– The route advertisement within a multi-area OSPF domain, path selection, and techniques to optimize an OSPF environment.
– How the OSPF protocol has changed to accommodate support of IPv6.
– The core concepts of BGP and its path attributes.
– The advanced features and concepts of BGP, such as BGP multihoming, route filtering, BGP communities, and the logic for identifying the best path for a specific network prefix.
– Concepts related to multicast and how it operates. Also, the protocols that are required to understand its operation in more detail, such as Internet Group Messaging Protocol (IGMP), IGMP snooping, Protocol Independent Multicast (PIM) Dense
Mode/Sparse Mode, and rendezvous points (RPs).
– The different QoS models available, such as: best effort, Integrated Services (IntServ), and Differentiated Services (DiffServ). Also, the tools and mechanisms used to implement QoS such as classification and marking, policing and shaping, and congestion management and avoidance.
– Functions to enhance the network, such as: time synchronization, virtual gateway technologies, and network address translation.
– Generic Routing Encapsulation (GRE) and IP Security (IPsec) fundamentals and how to configure them. Also, Locator ID/Separation Protocol (LISP) and Virtual Extensible Local Area Network (VXLAN).
– Radio frequency (RF) signals, measuring and comparing the power of RF signals, and basic methods and standards involved in carrying data wirelessly.
– Autonomous, cloud-based, centralized, embedded, and Mobility Express wireless architectures. In addition, the process that lightweight APs must go through to discover and bind to a wireless LAN controller.
– Client mobility from the AP and controller perspectives in order to design and configure a wireless network properly as it grows over time. Also, how components of a wireless network can be used to compute the physical locations of wireless devices.
– Several methods that can be used to authenticate users and devices in order to secure a wireless network.
– Problems wireless clients may have with their connections, developing a troubleshooting strategy, and using a wireless LAN controller as a troubleshooting tool.
– Enterprise campus architectures that can be used to scale from a small environment to a large campus-size network.
– The benefits of Software-Defined Access (SD-Access) over traditional campus networks as well as the components and features of the Cisco SD-Access solution, including the nodes, fabric control plane, and data plane. In addition, the benefits of Software-Defined WAN (SD-WAN) over traditional WANs, as well as the components and features of the Cisco SD-WAN solution, including the orchestration plane, management plane, control plane, and data plane.
– Some of the tools most commonly used for operations and troubleshooting in the network environment. Also, the basics of Cisco DNA Center with Assurance to showcase how the tool can improve mean time to innocence (MTTI) and root cause analysis of issues.
– A Cisco security framework to protect networks from evolving cybersecurity threats as well as the security components that are part of the framework, such as next-generation firewalls, web security, email security, and much more. Also, network access control (NAC) technologies such as 802.1x, Web Authentication (WebAuth), MAC Authentication Bypass (MAB), TrustSec, and MACsec.
– How to configure and verify network device access control through local authentication and authorization as well through AAA. Also, how to configure and verify router security features, such as access control lists (ACLs), control plane policing (CoPP) and zone-based firewalls (ZBFWs) that are used to provide device and infrastructure security.
– Server virtualization technologies such as virtual machines, containers, and virtual switching. Also, the network functions virtualization (NFV) architecture and Cisco’s enterprise NFV solution.
– Current network management methods and tools as well as key network programmability methods. In addition, how to use software application programming interfaces (APIs) and common data formats.
– Some of the most common automation tools that are available, such as: on-box, agent-based, and agentless tools.
– Set of tools and a study plan to help you complete your preparation for the CCNP Enterprise ENCOR 350-401 exam.
Exam #350-401 is associated with the new CCNP Enterprise, CCIE Enterprise Infrastructure, CCIE Enterprise Wireless and Cisco Certififed Specialist – Enterprise Core certifications. The exam will test a candidate’s knowledge and skills related to implementing core enterprise network technologies, such as: Infrastructure, Dual stack (IPv4 and IPv6) architecture, Virtualization, Automation, Network assurance and Security.