Free CCST-NETWORKING Exam Dumps Preview

-Statement A: "The trace successfully reached the www.cisco.com server." This is true as indicated by the "Trace complete" message at the end, showing that the trace has reached its destination. -Statement C:
"The IPv6 address associated with the www.cisco.com server is 2600:1408:c400:38d::b33." This is true because the final hop in the trace, which is the destination, has this IPv6 address.

-Statement B: "The trace failed after the fourth hop." This is incorrect as the trace continues beyond the fourth hop, despite some intermediate timeouts. -Statement D: "The routers at hops 5 and 6 are offline."
This is not necessarily true. The routers might be configured to not respond to traceroute requests.
-Statement E: "The device sending the trace has IPv6 address 2600:1408:c400:38d::b33."
This is incorrect; this address belongs to the destination server, not the sender.

References:
-Understanding Traceroute: Traceroute Guide

-1000BASE-T Cable: This refers to Gigabit Ethernet over twisted-pair cables (Cat 5e or higher).
-Connector: RJ-45 connectors are used for Ethernet cables, including those used for 1000BASE-T.
-Coax: Used for cable TV and older Ethernet standards like 10BASE2.
-RJ-11: Used for telephone connections.
-OS2 LC: Used for fiber optic connections.
References:
-Ethernet Standards and Cables: Ethernet Cable Guide

The primary purpose of assigning an IP address to the management VLAN interface on a Layer 2 switch is to facilitate remote management of the switch. By configuring an IP address on the management VLAN, network administrators can access the switch's Command Line Interface (CLI) remotely using protocols such as Telnet or Secure Shell (SSH). This allows for convenient configuration changes, monitoring, and troubleshooting without needing physical access to the switch 1.

References:
-Understanding the Management VLAN
-Cisco - VLAN Configuration Guide
-Remote Management of Switches Assigning an IP address to the management VLAN interface (often the VLAN 1 interface by default) on a Layer 2 switch allows network administrators to remotely manage the switch using protocols such as Telnet or SSH. This IP address does not affect the switch's ability to route traffic between VLANs but provides a means to access and configure the switch through its Command Line Interface (CLI).
-A: The switch does not act as a default gateway
this is typically a function of a Layer 3 device like a
router.
-B: The switch does not resolve URLs
this is typically a function of DNS servers.
-C: The switch can relay DHCP requests but does not typically provide DHCP services
itself
this is usually done by a dedicated DHCP server or router.
Thus, the correct answer is D. To enable access to the CLI on the switch through Telnet or SSH.
References :
-Cisco VLAN Management Overview
-Cisco Catalyst Switch Management

192.168.200.0/24 Network: This subnet includes all addresses from 192.168.200.0 to 192.168.200.255.

The /24 indicates a subnet mask of 255.255.255.0, which allows for 256 addresses. 192.168.199.13: This address is in the 192.168.199.0/24 subnet, not the 192.168.200.0/24 subnet. 192.168.200.13: This address is within the 192.168.200.0/24 subnet. ?92.168.201.13: This address is in the 192.168.201.0/24 subnet, not the 192.168.200.0/24 subnet.
192.168.1.13: This address is in the 192.168.1.0/24 subnet, not the 192.168.200.0/24 subnet.
References:
Subnetting Guide: Subnetting Basics

The correct matching of the MFA factors to their examples is as follows: Entering a one-time security code sent to your device after logging in: Possession Holding your phone to your face to be recognized: Inherence Specifying your user name and password to log on to a service: Knowledge Here's why each factor matches the example: Possession: This factor is something the user has, like a mobile device. A one-time security code sent to this device falls under this category. Inherence: This factor is something the user is, such as a biometric characteristic. Facial recognition using a phone is an example of this factor. Knowledge: This factor is something the user knows, like a password or PIN. Multi-Factor Authentication (MFA) enhances security by requiring two or more of these factors to verify a user's identity before granting access.

Entering a one-time security code sent to your device after logging in. Holding your phone to your face to be recognized. Specifying your username and password to log on to a service.

Possession Factor: This involves something the user has in their possession. Receiving a one-time security code on a device (e.g., phone) is an example of this. Inference Factor (Inherence/Biometric): This involves something inherent to the user, such as biometric verification (e.g., facial recognition or fingerprint scanning). Knowledge Factor: This involves something the user knows, such as login credentials (username and password).
References:
Multi-Factor Authentication (MFA) Explained: MFA Guide Understanding Authentication Factors:
Authentication Factors

A firewall can direct all web traffic to a specific IP address. A firewall can block traffic to specific ports on internal computers. A firewall can prevent specific apps from running on a computer.

Directing Web Traffic: Firewalls can manage traffic redirection using NAT and port forwarding rules to route web traffic to designated servers or devices within the network.
Blocking Specific Ports: Firewalls can enforce security policies by blocking or allowing traffic based on port numbers, ensuring that only permitted traffic reaches internal systems.
Application Control: While firewalls manage network traffic, preventing applications from running typically requires software specifically designed for endpoint protection and application management.
References:
Understanding Firewalls: Firewall Capabilities
Network Security Best Practices: Network Security Guide