350-101 Exam Dumps - Implementing and Operating Cisco Wireless Core Technologies (350-101 WLCOR)v1.0

The correct answer isRF 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.

The correct answer isCbecause trend deviation in Cisco Catalyst Center AI Analytics is designed to identify behavior that differs from expected network baselines. Cisco AI Network Analytics uses machine learning to establish baselines that are specific to the network and site, then compares live operational telemetry against those learned expectations. Cisco states that AI-driven issues are triggered based on deviations from the predicted baseline for the specific network environment.

For wireless operations, this is valuable because deviations in onboarding, association, DHCP, AAA, radio throughput, AP performance, client experience, retries, SNR, or similar KPIs can surface before they become broad user-impacting incidents. Cisco also describes Trend Deviations as a Trends and Insights function that determines global patterns and deviations to provide system-generated insights. This gives operations teams earlier awareness of abnormal wireless behavior and allows proactive investigation rather than waiting for help-desk tickets or hard threshold alarms.

The other options are unrelated. Time synchronization is handled by NTP, threshold export is not the core function of trend deviation, and log backup is a separate operational process. Reference topic:Wireless Monitoring and Management — Catalyst Center Assurance, AI Network Analytics, trend deviation, anomaly detection, wireless baselining, and proactive operations.

The exhibit creates WLAN profileguest-networkwith WLAN ID20and enables web authentication, but it does not yet define the client VLAN or bind the WLAN to a deployable policy. On Catalyst 9800 controllers, the WLAN profile defines SSID and wireless/security characteristics, while thepolicy profiledefines client-facing network policy, including VLAN assignment, AAA, ACLs, and switching behavior. Cisco’s web authentication configuration guide states that the policy profile specifies client VLAN, AAA, ACLs, timeout settings, and related policy, and the VLAN is assigned under the policy profile.

The second required object is thepolicy tag, because a policy tag maps the WLAN profile to the policy profile. Cisco also notes that the default policy tag automatically maps only WLAN IDs1 through 16; WLAN ID17 or highercannot use that default mapping. Since this WLAN is ID 20, a custom policy tag mapping is required. Mesh bridging, STP, AP group naming, or physical-interface isolation do not complete the Catalyst 9800 WLAN-to-VLAN policy model. Reference topics:Wireless Network Implementation — Catalyst 9800 configuration model, WLAN profiles, policy profiles, policy tags, guest VLAN assignment, and web authentication.

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.

MIMO, or Multiple-Input Multiple-Output, is a core 802.11n and later wireless technology that uses multiple transmit and receive radio chains and antennas to improve wireless performance. Cisco’s Wireless RF Reference Guide explains that IEEE 802.11n introduced MIMO, replacing the older single-radio SISO model with multiple radios, each using its own antenna, to increase data rates and improve reception in multipath environments. Cisco also notes that weak or distorted multipath signals can be received by more than one radio and reconstructed, improving decode quality and reliability.

This directly supports option A: MIMO exploits multiple RF paths rather than treating multipath as purely destructive. Depending on implementation, MIMO can use spatial diversity, maximal ratio combining, and spatial streams to increase throughput, improve signal-to-noise ratio, reduce retries, and make more efficient use of airtime. Cisco describes spatial stream notation such as 4x4:4 as four transmitters, four receivers, and four spatial streams. Option B describes frequency hopping, not MIMO. Option C is not a MIMO function. Option D is the opposite of MIMO because MIMO deliberately uses multiple antennas and radio paths. Reference topics:802.11 Technology Fundamentals — MIMO, spatial streams, multipath, SISO versus MIMO, and 802.11n/ac/ax PHY enhancements.