Cisco 350-101 Dumps - Pass Implementing and Operating Cisco Wireless Core Technologies Exam in 2026

The correct configuration is option C because Cisco IOS XE restricts inbound protocols on VTY lines with the transport input command. Cisco's Catalyst 9800 best-practice guidance states that administrators should confirm SSH is enabled and Telnet is disabled for better controller security, and that the Catalyst 9800 follows standard Cisco IOS XE behavior for enabling or disabling Telnet and SSH. Cisco IOS XE SSH documentation explicitly shows line vty line_number [ending_line_number] followed by transport input ssh, and explains that this prevents non-SSH Telnet connections, limiting access to SSH only.

The existing exhibit already includes the SSH prerequisites: hostname, domain name, RSA key generation, AAA new-model, a default login method using local credentials, and a local privileged user. The missing VTY configuration must therefore apply that default AAA login list to the VTY lines with login authentication default and restrict inbound transport to SSH. Cisco AAA documentation confirms that login authentication default applies the configured default authentication list to the line or set of lines. Option A is incomplete and does not explicitly permit SSH. Option B uses invalid syntax. Option D omits the required input keyword. Reference topics: Catalyst 9800 secure management, VTY access control, SSH, Telnet hardening, AAA login authentication, and IOS XE device administration.

In this scenario, the client is placed in the wrong VLAN (VLAN 50) even though the ISE server is configured to assign VLAN 100. The key part of the issue is that the VLAN assignment returned by ISE is not being applied correctly.

Option A: 'Configure the policy profile to allow ISE to override the VLAN.'

This is the correct answer. The policy profile on the Wireless LAN Controller (WLC) should be configured to allow the ISE server's VLAN assignment to override the locally configured VLAN settings on the WLC. Without this, the WLC might default to its pre-configured VLAN (VLAN 50) instead of the VLAN assigned by ISE (VLAN 100).

Option B: 'Configure VLAN 100 as an SVI on the WLC.'

This option is unnecessary. While an SVI (Switched Virtual Interface) is required to route between VLANs, it is not the cause of the issue here. The problem is that the correct VLAN (VLAN 100) is not being applied to the client, not that the WLC lacks an SVI.

Option C: 'Configure VLAN 100 on the trunk ports of the WLC.'

This option is also not relevant. The issue is not with trunking but with VLAN assignment from ISE. The trunking configuration ensures that VLANs are allowed across ports, but it does not address the client being placed in the wrong VLAN.

Option D: 'Configure AAA VLAN enable on the WLAN.'

This option is not directly related to the issue. While enabling AAA VLAN can allow for more dynamic VLAN assignments, the core issue is related to overriding the default VLAN setting from ISE, which is handled by configuring the policy profile on the WLC.

Therefore, Option A is the correct solution, as it ensures the WLC will allow the ISE server's VLAN assignment to override the default VLAN on the WLC, resolving the issue of incorrect VLAN assignment.

The correct element is the get() method. In the script, each device object is treated as a Python dictionary created from parsed JSON API output. The lines device.get('macAddress', 'N/A') and device.get('ipAddress', 'N/A') perform direct key-based lookup against the dictionary and return the associated value when the key exists. Python documentation defines dictionaries as key-value mappings and states that get() is used to avoid a KeyError by returning None or a specified default value when the key is absent.

This behavior is exactly what automation scripts need when consuming controller or wireless inventory APIs, because returned device records may not always contain every field. Cisco API inventory models commonly return structured device objects containing properties such as MAC address, model, network ID, product type, and wireless-related inventory attributes, which are then parsed by automation code. The pop operation would remove a dictionary key, not safely read it. The import function only loads modules such as requests and json. The format expression only builds the printed output string. Reference topics: Automation and AI --- Python scripting, REST API consumption, JSON parsing, and wireless inventory automation.

For campus wireless monitoring deployments involving Cisco Spaces, ISE, and Catalyst Center appliances, strict separation of management traffic from user data is required to maintain security and service continuity. The correct approach is to configure the switch interfaces connecting these appliances as access ports assigned to the dedicated management VLAN. This ensures that management and telemetry traffic is isolated from production WLAN traffic, preventing any disruption to end users if configuration changes are made. Assigning the management VLAN as the native VLAN on trunk ports (Option B) is inappropriate because the native VLAN still transmits untagged traffic and could allow accidental bridging with user traffic, violating security policies. PortFast (Option A) is used for rapid STP convergence on end-user ports but does not enforce VLAN separation or management isolation. Port Aggregation Protocol (Option C) is intended for link bundling and redundancy, not VLAN segmentation. Cisco Wireless best practices emphasize access port configuration for management appliances in a dedicated VLAN to guarantee security, telemetry reliability, and non-disruptive network operations. Proper implementation involves assigning a unique VLAN ID for all monitoring and management devices and configuring the switch port as an access port, ensuring consistent isolation and predictable behavior in a high-density campus environment. Reference topics: Wireless Monitoring and Management --- Cisco Spaces deployment, ISE integration, management VLAN isolation, switch access port configuration.

The correct answer is RF technical standards. In Japan, wireless LAN and other radio equipment must operate under national RF regulatory requirements controlled by the Ministry of Internal Affairs and Communications, commonly referenced as MIC. TELEC, a registered certification body in Japan, states that specified radio equipment such as wireless LAN equipment used in Japan must conform to technical regulations regulated by MIC, and that radio equipment conformity certification validates conformance to the technical standards under Japan's Radio Act.

This aligns directly with Cisco wireless regulatory-domain behavior. Cisco's Catalyst 9800 country-code documentation explains that APs use legal frequencies approved for their regulatory domain, and for Japan regulatory-domain devices, Japan country codes must be configured so the controller and APs operate within permitted channel and power constraints. Cisco also states that country codes are assigned and verified on APs or wireless controllers to ensure regulatory compliance for wireless operation. Manufacturing batch inspection, customer onboarding, and supplier-chain evaluation are not RF spectrum regulatory functions. Reference topics: RF Fundamentals --- regulatory domains, country codes, channel legality, transmit-power limits, and wireless compliance.