Cisco 350-101 Exam Dumps

The switch interfaces connected to the APs must be configured as 802.1Q trunk ports. The requirement states that AP management and guest Wi-Fi traffic must remain separate, and additional VLANs for IoT and voice are expected. An access port supports only one VLAN, so it cannot scale for multiple locally tagged client VLANs. Cisco's Catalyst AP guidance states that when multiple VLANs are used for client traffic, the AP switch port should trunk the VLANs, and management traffic is untagged; when a management VLAN is used, it should be configured as the native VLAN on the switch port. Cisco's Catalyst 9800 FlexConnect documentation also shows the AP connected to a trunk port with a native VLAN for AP IP connectivity and a separate VLAN for locally switched client traffic.

Option C is therefore correct: configure a trunk, set the AP management VLAN as native, and restrict the allowed VLAN list to only required management and client VLANs such as guest, IoT, and voice. This supports segmentation and prevents unnecessary internal VLAN exposure. Reference topics: AP switch-port design, 802.1Q trunks, native VLANs, client VLAN tagging, FlexConnect/local switching, and guest traffic segmentation.

A high-gain patch antenna is a directional antenna that concentrates RF energy into a defined coverage area rather than radiating equally in all directions. Cisco's Wireless RF Reference Guide explains that antenna gain determines how RF power is radiated and that higher-gain antennas do not create additional transmit power; they focus existing power in a given direction. Cisco also distinguishes omnidirectional high-gain patterns, which flatten coverage, from directional antennas, which focus energy toward a target area.

That makes option C correct: a patch antenna imparts a focused beam, typically useful for covering a hallway, warehouse aisle, seating section, point-to-point link, or defined flat service area. Cisco's antenna documentation also states that higher-gain antennas provide longer coverage distance but with a coverage-area tradeoff, especially in a particular direction. Option A is incorrect because antenna gain does not restrict operation to a single narrow frequency; frequency support is determined by antenna design and radio band. Option B describes channel overlap, not antenna behavior. Option D does not describe a standard patch antenna radiation pattern. Reference topics: RF Fundamentals --- antenna gain, directional antennas, patch antenna radiation patterns, beamwidth, and coverage-cell design.

AI Enhanced Radio Resource Management (RRM) in Cisco wireless networks improves upon traditional RRM by leveraging historical data in addition to real-time measurements to optimize network performance. Traditional RRM reacts primarily to instantaneous conditions, such as current interference or load, and adjusts parameters like transmit power and channel assignment accordingly. In contrast, AI Enhanced RRM uses historical telemetry to identify patterns, predict congestion, and preemptively adjust network parameters, providing a more stable and high-performing wireless environment. This predictive capability allows the system to make informed adjustments for channel reuse, load balancing, and interference mitigation before network degradation occurs. While real-time adjustments are still made, the inclusion of historical data allows for smarter decisions and more consistent client experience. Options A and B do not describe the core benefits of AI Enhanced RRM, as legacy client support or telemetry encryption are unrelated to predictive or adaptive resource management. Option C only highlights reactive behavior, which is a characteristic of traditional RRM, not AI Enhanced RRM. Cisco documentation and design guides emphasize that AI Enhanced RRM's key advantage is its predictive approach using historical analytics, enabling proactive network optimization across high-density or dynamic wireless environments. Reference topics: Automation and AI --- AI Enhanced RRM, predictive network management, historical telemetry, channel and power optimization.

Fast transition is the correct solution because it refers to IEEE 802.11r Fast BSS Transition, which reduces the authentication delay when a wireless client roams from one AP to another. Cisco describes 802.11r Fast Transition as a feature for seamless wireless roaming and states that, after configuration, the WLAN supports faster client roaming between access points. Cisco's Catalyst 9800 roaming documentation also identifies 802.11r as the mechanism focused on seamless transition between APs, while 802.11k and 802.11v assist with neighbor reporting and network-assisted roaming decisions.

The core advantage is that key negotiation and authentication preparation occur before or during the roam, reducing the interruption experienced by latency-sensitive applications such as voice, video, collaboration tools, and real-time enterprise applications. Static VLAN policy only controls segmentation and does not accelerate roaming. Optimized roaming can help discourage sticky clients from remaining associated to poor-quality APs, but it is not the primary fast-roam authentication mechanism. A redundant RF profile is not an 802.11 roaming solution. Reference topics: 802.11r Fast BSS Transition, client roaming, WLAN mobility behavior, Catalyst 9800 WLAN security, and seamless roaming design.