ECCouncil 312-38 Exam With Confidence Using Practice Dumps

Network sniffing is a technique used to capture and analyze packets traveling across a network. Through network sniffing, one can potentially gain access to a variety of sensitive information, depending on the protocols being used and the security measures in place.

• Telnet Passwords (A): Telnet is an older protocol that transmits data, including login credentials, in clear text. This makes Telnet passwords particularly vulnerable to network sniffing1.
• Syslog Traffic (B): Syslog is a standard for message logging. If not properly secured, syslog traffic can be intercepted, revealing system messages and metadata about network activities1.
• DNS Traffic ©: DNS traffic includes queries and responses that can be captured to reveal which domains are being requested by users on the network. This can provide insights into user behavior and network structure1.
• Programming Errors (D): While network sniffing can capture packets that may contain the results of programming errors, such as error messages or malformed packets, it does not directly reveal the programming errors themselves. Sniffing tools capture the traffic but do not analyze the code within the applications generating that traffic.

References: The information has been verified from the EC-Council’s resources on network sniffing and network defense strategies, which discuss the types of data that can be captured through sniffing and the implications for network security123.

Syslog and SNMP (Simple Network Management Protocol) are protocols used for different purposes in network management and monitoring. Syslog is primarily a standard for message logging, used to collect system event information from various systems and devices, and it typically sends log data to a centralized Syslog server. SNMP, on the other hand, is used to manage and monitor network devices, and it can send alerts or ‘traps’ to a management station. Both Syslog and SNMP are considered push-based protocols because the information is generally sent (or ‘pushed’) from the devices to the server or management station without the server requesting (or ‘pulling’) the data1234.

References: The information provided here is based on standard network management practices and the functionalities of Syslog and SNMP as outlined in network management and monitoring literature. For more detailed information, please refer to the official Certified Network Defender (CND) study materials and documents provided by the EC-Council.

After completing the vulnerability scanning process and identifying serious vulnerabilities, Harry will proceed through several phases of vulnerability management to address and eradicate these vulnerabilities. The phases include:

• Mitigation: This phase involves taking steps to reduce the impact of the detected vulnerabilities. Mitigation strategies may include applying patches, adjusting configurations, or implementing compensating controls to lower the risk associated with the vulnerabilities.
• Verification: In this phase, Harry will verify that the vulnerabilities have been successfully mitigated or remediated. This typically involves re-scanning the network to ensure that the vulnerabilities are no longer present or that their risk has been sufficiently reduced.
• Remediation: This is the phase where Harry will take action to fix the vulnerabilities. Remediation can involve patching software, closing unnecessary ports, changing passwords, or other actions that directly address the identified security issues.

These phases are part of a broader vulnerability management lifecycle, which also includes assessing vulnerabilities and reassessing the network after remediation efforts to ensure continuous protection.

References: The explanation provided is based on the standard vulnerability management lifecycle, which includes assessment, prioritization, action (mitigation and remediation), reassessment, and improvement as outlined in cybersecurity resources123.