H12-841_V1.5 Exam Dumps - HCIP-Datacom-Campus Network Planning and Deployment V1.5

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

CloudCampus virtualized campus networks support multiplefabric egress modesto connect VXLAN fabrics to external networks. These modes determine how traffic exits the fabric and whether egress resources are shared among multiple virtual networks.

Layer 3 shared egressallows multiple VNs to share the same Layer 3 egress interface, improving resource utilization and simplifying external connectivity.Layer 3 exclusive egressdedicates an independent Layer 3 interface to a specific VN, providing stronger isolation and higher security.

Layer 2 shared egressenables multiple VNs to access an external Layer 2 network through a shared interface. This mode is commonly used when the external network does not support Layer 3 integration.

Layer 2 exclusive egressis not supported in the CloudCampus solution because Layer 2 resources are typically designed to be shared to optimize scalability and simplify deployment.

Therefore, the correct answers are A, C, and D.

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

In iMaster NCE-Campus–based virtualized campus networks, thesiteis a fundamental management object used to organize and manage network resources. A site typically represents aphysical location or logical network scope, such as a campus, building, or branch, under a tenant. Tenants manage devices, configurations, and servicesby site, which makes statementB correct.

iMaster NCE-Campus allows administrators tocreate sites individually, enabling flexible deployment and incremental network construction. Therefore,statement C is correct. In addition, a site is created and owned by atenant administratorto represent the tenant’s network scope, makingstatement D correct.

StatementA is false. iMaster NCE-Campusdoes support batch site creation, which is commonly used in large-scale or MSP scenarios where many tenant sites or branch sites need to be deployed efficiently. Batch creation significantly reduces manual workload and improves deployment efficiency.

According to HCIP Datacom Campus Network documentation, site management supports bothsingle-site creation and batch site creation, enabling scalable and centralized O&M. Therefore, the statement claiming that batch site creation is not supported is incorrect.

In a virtualized campus network managed byiMaster NCE-Campus, traffic control between users or user groups is implemented throughsecurity groupsand apolicy control matrix. The configuration shown clearly reflects this mechanism.

The ACL usesucl-group names, such asResearch_Group,Sales_Group, andGuest_Group. These ucl-groups correspond tosecurity groupsdefined on iMaster NCE-Campus. The ACL rules explicitly permit IP traffic from one security group to other security groups. This type of ACL is automatically generated and delivered by the controller when apolicy control matrixis deployed.

A policy control matrix defineswho can access whomby specifying allow or deny relationships between security groups. Once the matrix is configured on iMaster NCE-Campus, the controller translates these logical policies into device-level ACLs and applies them to the appropriate enforcement points in the VXLAN fabric. The presence of multiple rules permitting traffic from one group to multiple destination groups is a typical outcome of deploying such a matrix.

Creating a security group alone would not generate ACL rules. Deploying inter-VN communication would involve route exchange or gateway configuration, not ucl-group–based ACLs. Creating an authorization result would associate users with security groups but would not generate inter-group ACL rules.

Therefore, the administrator operation that resulted in this configuration wasdeploying a policy control matrix, making optionAthe correct answer.

In a Huawei virtualized campus network managed byiMaster NCE-Campus,Fit APs do not go online immediatelyafter being added to the management platform. According to HCIP Datacom Campus Network documentation, Fit APs depend on awireless access controller (AC)for control, configuration delivery, and service provisioning. Simply adding a Fit AP to iMaster NCE-Campus only completes thedevice registration step, not the full service enablement process.

After a Fit AP is added, several additional steps are required before it can go online and provide wireless services. First, the AP must successfullydiscover and establish a control tunnel with the AC. Then, the AP typically needs to beapproved, assigned to a site, and bound to the correctAP group. Configuration data such as radio parameters, SSIDs, security policies, and authentication profiles must also be delivered from the AC to the AP.

In addition, firmware version checks or upgrades may occur during the onboarding process to ensure compatibility with the controller and management platform. Only after these steps are completed can the Fit AP enter thenormal online stateand start providing WLAN services.

This multi-step process ensures centralized control, consistent configuration, and reliable operation across large-scale campus networks, but it also means Fit APs cannot immediately go online upon being added to iMaster NCE-Campus.

Therefore, the statement is incorrect, and the correct answer isFALSE.

Explanation (Concise and Technical)

Position 1 → 100This corresponds toVNI 100, which is associated with BD10 and is used for communication between PC1 and PC3.

Position 2 → 3.3.3.3This is theremote VTEP IP addressof VTEP3, configured as a head-end peer for VNI 100 on VTEP1.

Position 3 → 200This representsVNI 200, which is bound to BD20 and enables VXLAN communication between PC2 and PC4.

Position 4 → 1.1.1.1This is theremote VTEP IP addressof VTEP1, configured as a head-end peer for VNI 200 on VTEP2.

This mapping follows standardstatic VXLAN tunnel configuration logicon Huawei devices, where each VNI is explicitly associated with remote VTEP peer addresses using head-end peer-list.

In Huawei campus WLAN solutions, different WLAN architectures are designed to meet varying network scales, cost requirements, and management complexity. The architecture described in this question matches theLeader APsolution.

ALeader APcan operate independently without a dedicated wireless controller, while also having the capability to manage asmall number of subordinate APs. The Leader AP takes on lightweight control functions, such as basic configuration management and simple roaming coordination among the managed APs. This allows wireless users to roam between APs with minimal service interruption, meeting basic mobility requirements.

According to HCIP Datacom Campus Network documentation, the Leader AP architecture is characterized bylow deployment cost and simple maintenance. Since no separate AC is required and the number of APs is limited, network planning and configuration are straightforward. This significantly reduces the technical skill level required for daily operation and maintenance, making it suitable for small campuses, retail stores, branch offices, and small enterprises.

In contrast,Fat APsoperate completely independently and do not support centralized roaming management.AC + Fit AParchitectures are designed for medium to large networks and require higher investment and professional maintenance.Agile distributed APsolutions focus on centralized APs and RUs, which do not align with the independent AP management described.

Therefore, the WLAN architecture that best fits the given characteristics isLeader AP, making optionAthe correct answer.

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

Huawei iMaster NCE-Campus supports advanced networking solutions tailored for industry-specific scenarios, including thefinancial SD-WAN SRv6 solution. This solution leverages Segment Routing over IPv6 (SRv6) to enable precise traffic steering, deterministic forwarding, and end-to-end service scheduling across the network.

Because SRv6 introduces enhanced forwarding capabilities and control-plane features beyond standard campus networking functions, Huawei licenses these capabilities separately. To activate SRv6-based financial SD-WAN features on iMaster NCE-Campus, customers must obtain theSRv6 function package license. Without this license, SRv6-specific orchestration, scheduling, and optimization functions cannot be enabled.

According to HCIP Datacom Campus Network documentation, licensing ensures controlled feature activation and aligns with Huawei’s modular service enablement strategy. Therefore, the statement is TRUE, and option A is correct.

Encapsulating Security Payload (ESP) is one of the core protocols of the IPsec framework and is widely used in Huawei campus and SD-WAN network solutions to provide secure data transmission. ESP operates directly over IP and is identified by a uniqueIP protocol number, which allows network devices to recognize and process ESP packets correctly.

According to HCIP Datacom Campus Network documentation and standard IP protocol definitions,ESP uses protocol number 50. ESP provides essential security services such as data confidentiality through encryption, data integrity verification, authentication, and anti-replay protection. It can operate in bothtransport modeandtunnel mode, making it suitable for scenarios such as site-to-site VPNs and remote access VPNs.

The other options listed are incorrect.Protocol number 47is used by GRE (Generic Routing Encapsulation), which is a tunneling protocol and does not provide encryption.Protocol number 51is assigned to AH (Authentication Header), another IPsec protocol that provides integrity and authentication but does not support encryption.Protocol number 102is not associated with ESP or commonly used IPsec-related protocols.

Correct identification of ESP traffic using protocol number 50 is critical for firewall configuration, security policy enforcement, and proper forwarding of encrypted traffic in campus and WAN environments. Therefore, the correct answer is50, which corresponds to optionB.