CCNA ( 200-301) Cisco Certified Network Associate Training

A certified network associate (CCNA) is a person who has been trained to operate Cisco equipment and administer their operations. A CCNA performs tasks similar to those performed by a technician at a service provider. Most technicians have only worked on small networks. The CCNA role requires training on both smaller and larger networks.

The CCNA course is specifically designed for people who wish to enter the networking field. By passing this certification exam, you become eligible to take the next step in your career as a network engineer. In order to pass the exam, it is crucial to understand the concepts behind networking and be able to apply those knowledge skills in real-world scenarios.

This course contains eight chapters covering various topics related to network design and administration. These topics include IP addressing, subnetting, VLANs, routing protocols, basic management techniques, troubleshooting tools, VPNs, wireless networks, and security. Each chapter features a number of hands-on labs, quizzes and exams, and practice exercises.

There is no direct path to becoming a CCNA Certified Associate via the CCNA track. Instead, you would need to complete the entire CCNA curriculum, which includes both online and classroom courses. Once you've completed the curriculum, you can sit for the CCNA Certification Exam.

In order to get certified by the CISCO, You have to Pass CCNA Exam, applicants need to have a minimum 70% Score in  CCNA (200-301) Global Certification Exam. Applicants should also have experience working with network devices, including switches, routers, firewalls, etc.

Content:

• Module 1: Network Fundamentals 20%
  •  1.1 Explain the role and function of network components.
  •  1.1.a Routers.
  •  1.1.b L2 and L3 switches.
  •  1.1.c Next-generation firewalls and IPS.
  •  1.1.d Access points.
  •  1.1.e Controllers (Cisco DNA Center and WLC).
  •  1.1.f Endpoints.
  •  1.1.g Servers.
  •  1.2 Describe characteristics of network topology architecturess.
  •  1.2.a 2 tier.
  •  1.2.b 3 tier.
  •  1.2.c Spine-leaf.
  •  1.2.d WAN.
  •  1.2.e Small office/home office (SOHO).
  •  1.2.f On-premises and cloud.
  •  1.3 Compare physical interface and cabling types.
  •  1.3.a Single-mode fiber, multimode fiber, copper.
  •  1.3.b Connections (Ethernet shared media and point-to-point.
  •  1.3.c Concepts of PoE.
  •  1.4 Identify interface and cable issues (collisions, errors, mismatch duplex, and/or speed).
  •  1.5 Compare TCP to UDP.
  •  1.6 Configure and verify IPv4 addressing and subnetting.
  •  1.7 Describe the need for private IPv4 addressing.
  •  1.8 Configure and verify IPv6 addressing and prefix.
  •  1.9 Compare IPv6 address types.
  •  1.3.b 1.9.a Global unicast.
  •  1.9.b Unique local.
  •  1.9.c Link local.
  •  1.9.d Anycast.
  •  1.9.e Multicast.
  •  1.9.f Modified EUI 64.
  •  1.10 Verify IP parameters for Client OS (Windows, Mac OS, Linux).
  •  1.11 Describe wireless principles.
  •  1.11.a Nonoverlapping Wi-Fi channels 1.11.b SSID 1.11.c RF 1.11.d Encryption.
  •  1.12 Explain virtualization fundamentals (virtual machines).
  •  1.13 Describe switching concepts.
  •  1.13.a MAC learning and aging.
  •  1.13.b Frame switching .
  •  1.13.c Frame flooding.
  •  1.13.d MAC address table.
• Module 2: Network Access 20%
  •  2.1 Configure and verify VLANs (normal range) spanning multiple switches.
  •  2.1.a Access ports (data and voice).
  •  2.1.b Default VLAN.
  •  2.1.c Connectivity.
  •  2.2 Configure and verify interswitch connectivity.
  •  2.2.a Trunk ports.
  •  2.2.b 802.1Q.
  •  2.2.c Native VLAN.
  •  2.3 Configure and verify Layer 2 discovery protocols (Cisco Discovery Protocol and LLDP).
  •  2.4 Configure and verify (Layer 2/Layer 3) EtherChannel (LACP).
  •  2.5 Describe the need for and basic operations of Rapid PVST+ Spanning Tree Protocol and identify basicoperations.
  •  2.5.a Root port, root bridge (primary/secondary), and other port names.
  •  2.5.b Port states (forwarding/blocking).
  •  2.5.c PortFast benefits.
  •  2.6 Compare Cisco Wireless Architectures and AP modes.
  •  2.7 Describe physical infrastructure connections of WLAN components (AP, WLC, access/trunk ports, and LAG).
  •  2.8 Describe AP and WLC management access connections (Telnet, SSH, HTTP, HTTPS, console, and TACACS+/RADIUS).
  •  2.9 Configure the components of a wireless LAN access for client connectivity using GUI only such as WLAN creation, security settings, QoS profiles, and advanced WLAN settings.
• Module 3: IP Connectivity 25%
  •  3.1 Interpret the components of routing table.
  •  3.1.a Routing protocol codes.
  •  3.1.b Prefixs.
  •  Guided Exercise: Implementing Multiple Plays3.1.c Network mask.
  •  3.1.d Next hop.
  •  3.1.e Administrative distance.
  •  3.1.f Metric.
  •  3.1.g Gateway of last resort.
  •  3.2 Determine how a router makes a forwarding decision by default.
  •  3.2.a Longest match.
  •  3.2.b Administrative distance.
  •  3.2.c Routing protocol metric.
  •  3.3 Configure and verify IPv4 and IPv6 static routing.
  •  3.3.a Default route.
  •  3.3.b Network route.
  •  3.3.c Host route.
  •  3.3.d Floating static.
  •  3.3 3.4 Configure and verify single area OSPFv2.
  •  3.4.a Neighbor adjacencies.
  •  3.4.b Point-to-point.
  •  3.4.c Broadcast (DR/BDR selection).
  •  3.4.d Router ID.
  •  3.5 Describe the purpose of first hop redundancy Protocol.
• Module 4: IP Services 10%
  •  4.1 Configure and verify inside source NAT using static and poolss.
  • 4.2 Configure and verify NTP operating in a client and server mode.
  •  4.3 Explain the role of DHCP and DNS within the network.
  •  4.4 Explain the function of SNMP in network operations.
  •  4.5 Describe the use of syslog features including facilities and levels.
  •  4.6 Configure and verify DHCP client and relay .
  •  4.7 Explain the forwarding per-hop behavior (PHB) for QoS such as classification, marking, queuing, congestion, policing, shaping.
  •  4.8 Configure network devices for remote access using SSH.
  •  4.9 Describe the capabilities and function of TFTP/FTP in the network.
• Module 5: Security Fundamentals 15%
  •  5.1 Define key security concepts (threats, vulnerabilities, exploits, and mitigation techniques).
  •  5.2 Describe security program elements (user awareness, training, and physical access control).
  •  5.3 Configure device access control using local passwords.
  •  5.4 Describe security password policies elements, such as management, complexity, and password alternatives (multifactor authentication, certificates, and biometrics).
  • 5.5 Describe remote access and site-to-site VPNs.
  •  5.6 Configure and verify access control lists.
  •  5.7 Configure Layer 2 security features (DHCP snooping, dynamic ARP inspection, and port security).
  •  5.8 Differentiate authentication, authorization, and accounting concepts.
  •  5.9 Describe wireless security protocols (WPA, WPA2, and WPA3).
  •  5.10 Configure WLAN using WPA2 PSK using the GUI.
• Module 6: Automation and Programmability 10%
  • 6.1 Explain how automation impacts network management.
  •  6.2 Compare traditional networks with controller-based networking.
  •  6.3 Describe controller-based and software defined architectures (overlay, underlay, and fabric).
  •  6.3.a Separation of control plane and data plane.
  •  6.3.b North-bound and south-bound APIs.
  • 6.4 Compare traditional campus device management with Cisco DNA Center enabled device management.
  • 6.5 Describe characteristics of REST-based APIs (CRUD, HTTP verbs, and data encoding).
  •  6.6 Recognize the capabilities of configuration management mechanisms Puppet, Chef, and Ansible.
  •  6.7 Interpret JSON encoded data.