Ace Your H12-841_V1.5 HCIP-Datacom Exam

In iMaster NCE-Campus, device management functions are tightly integrated with secure remote access mechanisms to ensure safe and efficient O&M operations. One such mechanism is theSSH proxy tunnel, which allows administrators to remotely access managed devices through the controller without directly exposing device management interfaces to the external network.

According to HCIP Datacom Campus Network documentation, theSSH proxy tunnel is automatically established when the Command Line function is usedon the Device Management page. When an administrator clicks theCommand Lineoption, iMaster NCE-Campus dynamically builds a secure SSH proxy channel between the controller and the target device. This enables real-time CLI access to the device through the web interface while maintaining strict security controls.

Other functions such asSummary,Entry Query, andDevice Configurationdo not require direct CLI interaction with the device. These functions rely on management protocols and configuration delivery mechanisms such as NETCONF or telemetry, and therefore do not trigger the establishment of an SSH proxy tunnel.

The Command Line function is specifically designed for scenarios such as advanced troubleshooting, manual verification, or executing device-level commands. Automatically enabling the SSH proxy tunnel at this moment ensures that CLI access is bothsecure and on-demand, reducing attack surfaces and simplifying remote maintenance.

Therefore, the function that automatically enables the SSH proxy tunnel isCommand Line, making optionDthe correct answer.

Comprehensive and Detailed 200 to 250 words of Explanation From HCIP Datacom Campus Network documents knowledge without any URL or Links:

Dynamic VLAN authorization allows edge devices to dynamically assign users to specific VLANs based on authentication results. This mechanism is widely used to guide user traffic into the correct VN in a CloudCampus virtualized campus network.

Forwired users, bothMAC address authenticationand802.1X authenticationsupport dynamic VLAN assignment. Once authentication succeeds, the authentication server delivers authorization VLAN information to the edge node, and users are placed into the corresponding VLANs. Therefore, statementsCandDare correct.

Forwireless users,802.1X authenticationalso supports dynamic VLAN authorization, making statementBcorrect. However,Portal authentication for wireless users does not support dynamic VLAN assignmentin CloudCampus networks. Wireless Portal authentication typically controls access rights rather than VLAN placement.

According to HCIP Datacom Campus Network documentation, statement A is false, making it the correct answer.

Comprehensive and Detailed 200 to 250 words of Explanation From HCIP Datacom Campus Network documents knowledge without any URL or Links:

In Huawei campus authentication architecture, anauthentication profiledefines how users are authenticated and which domain is used during authentication. A key concept is theforcible domain, which has the highest priority during domain selection. If a forcible domain is configured, the device ignores any domain information carried in the user name and forcibly authenticates the user in the specified domain. Therefore, statementD is correct.

Statement A is incorrect because the default domaincan be modifiedusing CLI commands, allowing administrators to flexibly control user authentication behavior. Statement B is also incorrect; on the same interface, different authentication types (such as 802.1X, MAC authentication, and Portal)can be configured with different domains, depending on access control requirements.

Statement C is incorrect because the default authentication triggering sequence on Huawei devices is802.1X → MAC address authentication → Portal authentication, not the order described. This sequence ensures strong authentication is attempted first before falling back to weaker mechanisms.

According to HCIP Datacom Campus Network documentation, forcible domain configuration guarantees unified policy enforcement and simplifies authentication control, making option D the only correct statement.

In a VXLAN-based virtualized campus network, planning is divided intounderlay,fabric, andoverlaylayers, each with clear responsibilities:

Fabric Design → Border Node DesignFabric design focuses on the VXLAN fabric structure and roles of fabric nodes.Border nodesare a core part of the fabric, responsible for VXLAN encapsulation/decapsulation, policy enforcement, and traffic exit/entry between the VXLAN fabric and external networks. Therefore, Border Node Design belongs to Fabric Design.

Overlay Network Design → VN Access DesignVN Access Design defines how users and terminals access different Virtual Networks (VNs), including VLAN-to-VN mapping and authentication-based access. These are overlay-layer service constructs.

Overlay Network Design → VN Interwork DesignVN Interwork Design focuses on communication between different VNs (for example, inter-VN routing and security group policy control), which is a classic overlay function.

Overlay Network Design → External Network DesignExternal Network Design defines how overlay VNs communicate with non-VXLAN external networks, which is also an overlay service behavior implemented through border nodes.

This mapping strictly follows Huawei HCIP Datacom Campus Network VXLAN planning methodology.