Pass the ECCouncil CND 312-38 Questions and answers with ExamsMirror

The ‘Always Encrypted’ feature in MS SQL Server is designed to protect sensitive data by performing encryption within client applications. It ensures that the encryption keys are never revealed to the Database Engine. This separation between data owners and data managers provides a secure environment where on-premises database administrators or cloud database operators do not have access to the encryption keys. Always Encrypted allows for a secure storage of sensitive data in the cloud and reduces the risk of data theft by malicious insiders1.

References: The information provided is based on the official Microsoft documentation for the Always Encrypted feature in SQL Server123.

When deciding on the appropriate backup medium, the network administrator will consider Reliability as the primary factor. This is because the backup medium must be dependable for restoring data in case of data loss or system failure. The reliability of a backup medium ensures that data can be recovered accurately and completely when needed.

References: The importance of reliability in choosing a backup medium is supported by best practices in data backup and recovery, which emphasize the need for a dependable backup solution to ensure data integrity and availability1234.

In Wireshark, the filter icmp.type==8 is used to detect ICMP Echo requests, which are commonly used in ping sweep attempts. A ping sweep is a network scanning technique used to determine which of a range of IP addresses map to live hosts. It involves sending ICMP Echo requests (type 8) to multiple hosts and listening for Echo replies (type 0). If an Echo reply is received, it indicates that the host is active. Therefore, the filter icmp.type==8 can be applied to capture these ICMP Echo requests and detect a ping sweep attempt.

References: This information is consistent with network security practices and the use of Wireshark for detecting network attacks, such as ICMP ping sweeps1. The filter icmp.type==8 specifically captures ICMP Echo requests, which are central to the technique of ping sweeping1.

In the context of event log management, the wrapping method refers to a technique where event logs are arranged in the form of a circular buffer. This means that when the allocated space for the logs is filled, new events start to overwrite the oldest events. This method ensures that the most recent events are always available, but older events are eventually overwritten as new ones come in. It is particularly useful for systems that generate a large number of events and have limited storage capacity for logs.

References: The wrapping method is a standard approach in various logging systems and is often used in scenarios where maintaining the most recent logs is more critical than preserving all historical logs indefinitely12.

In the context of network security and event management, an ‘Error’ event type typically indicates a significant problem that could result in loss of data or loss of functionality. These events are logged when a system or application experiences a severe issue that prevents it from continuing normal operation. Unlike warnings or informational events, error events suggest a critical condition that may require immediate attention to prevent further damage or data loss.

References: The Certified Network Defender (CND) course by EC-Council includes detailed discussions on various event types and their significance in the realm of cybersecurity. The curriculum covers the importance of monitoring and managing error events as part of maintaining network security and ensuring the integrity and availability of data and services1.

The zero-trust model is a security concept centered on the belief that organizations should not automatically trust anything inside or outside its perimeters and instead must verify anything and everything trying to connect to its systems before granting access. The Software Defined Perimeter (SDP) aligns with this model by creating a dynamic, context-aware, and secure boundary around network resources. SDP controls access to resources based on identity, authentication, and authorization, ensuring that only authenticated and authorized users or systems can access the services they require. This approach minimizes the attack surface by hiding network resources from unauthorized or unauthenticated users, which is a core principle of zero-trust security.

References: The information aligns with the principles of zero-trust security as outlined in the NIST 800-207 standard for Zero Trust1 and is supported by the Cloud Security Alliance’s documentation on Software-Defined Perimeter (SDP) and Zero Trust2. Additionally, the relationship between SDP and zero-trust is discussed in various industry sources, highlighting SDP as an architecture that enables the zero-trust model by providing secure and authenticated access to network resources34.

In RAID storage, striping is the technique that divides data into blocks and spreads them across multiple drives in the RAID array. This method enhances performance by allowing the drives to read and write data simultaneously, effectively increasing throughput and speed. Unlike mirroring, which duplicates data across drives, or parity, which provides redundancy, striping solely focuses on performance by distributing data across the RAID system without redundancy.

References: The concept of striping is associated with various RAID levels, particularly RAID 0, which is known for its striping technique without redundancy1. This information aligns with the objectives and documents of the Certified Network Defender (CND) course, which covers RAID storage techniques as part of its curriculum.

Containers are designed to be lightweight, running directly within the host’s kernel without the need for a guest operating system. This means they share the same OS kernel but maintain separate user spaces. While this architecture provides process-level isolation, it does not offer the same level of security as a fully isolated virtual machine (VM). VMs include a full copy of an operating system, a virtual copy of the hardware that the OS requires to run, and provide complete isolation from the host system. Containers, on the other hand, are less secure because if the host OS is compromised, all containers could potentially be compromised. The Certified Network Defender (CND) program emphasizes understanding the security implications of different technologies, including containers, and the importance of implementing appropriate security measures to protect network resources123.

References: The information provided here is aligned with the EC-Council’s Certified Network Defender (CND) curriculum, which covers network security, defense strategies, and the differences between containers and VMs in terms of security45. For more detailed information, please refer to the official CND study materials and documents provided by the EC-Council.

SRAM, or Static Random-Access Memory, is known for its low access time, typically around 20 ns, which makes it suitable for applications requiring high speed, such as cache memory in computers or, in this case, a RAID system. SRAM is faster than DRAM because it does not need to be refreshed as often, which is why it’s used where speed is critical. Although SRAM is more expensive and has less density compared to other types of RAM, its speed advantage makes it the preferred choice for Brendan’s RAID system requirements.

References: The characteristics of SRAM are well-documented in computer architecture and hardware literature, aligning with the Certified Network Defender (CND) course’s focus on understanding different types of memory for network security purposes. The ECCouncil’s CND materials and study guides provide information on various hardware components and their relevance to network security, which includes the selection of appropriate RAM types for different systems123.

The Security Reference Monitor (SRM) is the core component in Windows operating systems responsible for controlling access to resources. It enforces security policies and checks whether a user’s request to access a resource is allowed by the system’s security policy. SRM operates in the kernel mode and ensures that access rights and permissions are properly enforced, making it a critical part of the Windows security architecture for resource access control.

References: The role of SRM in Windows security is well-documented and aligns with the information provided in Microsoft’s official documentation and security model, which describes SRM as the component that enforces access controls and security policies within the system12.