RUCKUS RCWA Exam Dumps

SmartZone controllers support a range of external authentication services for both proxy (via controller) and non-proxy (direct-to-AAA) authentication mechanisms. According to the RUCKUS One Online Help -- Authentication Services Configuration, the supported external services include:

Active Directory (AD) (A): Used for domain-based user authentication and group policy enforcement.

Lightweight Directory Access Protocol (LDAP) (B): Provides user authentication through directory lookup, commonly used for enterprise identity systems.

RADIUS (E): A widely used AAA protocol that integrates with external servers such as FreeRADIUS, Cisco ISE, or Microsoft NPS for centralized authentication and accounting.

While SAML and OAuth are used in RUCKUS Cloud and RUCKUS One for SSO (Single Sign-On) and API authentication, they are not used for WLAN or AAA authentication within SmartZone. TACACS+ is not supported as an external client authentication method in SmartZone (it is only used for admin login on some platforms).

Therefore, the correct authentication services are A (AD), B (LDAP), and E (RADIUS).

RUCKUS One Online Help -- WLAN Authentication and AAA Integration

RUCKUS Analytics 3.5 User Guide -- Authentication Logs and Proxy Mode Analysis

RUCKUS AI Documentation -- SmartZone AAA and External Authentication Architecture

(This question is intentionally repeated for reinforcement, and the correct logic remains identical to Q35.)

RUCKUS documentation consistently advises increasing antenna gain instead of transmit power when client devices (e.g., smartphones, tablets) cannot sustain uplink performance.

Directional or high-gain antennas improve the effective radiated power (ERP) in the intended coverage direction and strengthen both uplink and downlink paths without violating regulatory limits.

RUCKUS AI and RUCKUS Analytics tools can identify poor edge-client SNRs, confirming when directional antenna optimization is necessary.

RUCKUS One Online Help -- Outdoor Wi-Fi Optimization and Antenna Gain Guidelines

RUCKUS Analytics 3.5 User Guide -- Edge Client Performance Diagnostics

RUCKUS AI Documentation -- RF Optimization and Uplink Path Gain Improvement

AI Anomaly Detection in RUCKUS Analytics uses machine learning to detect, classify, and correlate service-impacting events such as authentication failures, RF interference, and backhaul latency.

According to RUCKUS Analytics 3.5 User Guide -- AI-Driven Insights, this feature correlates telemetry across APs, clients, and switches to isolate root causes automatically. It identifies deviations from normal baselines and links related issues under unified incident reports.

RUCKUS One Online Help -- Anomaly Detection and Correlation Engine confirms this system dramatically reduces troubleshooting time by surfacing the exact source of network degradation.

Other tools like Event Timeline Viewer and Health Dashboard visualize events but do not perform automatic RCA (Root Cause Analysis).

RUCKUS Analytics 3.5 User Guide -- AI-Driven Incident Correlation

RUCKUS One Online Help -- Anomaly Detection and Intelligent Correlation

RUCKUS AI Documentation -- Predictive Root Cause Analysis Engine

Indoor WLAN coverage is influenced by multiple RF and physical parameters that determine how effectively a signal propagates and maintains connectivity quality.

According to RUCKUS One Online Help -- RF Design Fundamentals and RUCKUS AI Documentation -- Coverage Optimization, the three most impactful factors are:

AP Transmit Power (A): Directly affects signal reach; excessive power can cause co-channel interference, while low power results in coverage holes.

AP Orientation (C): Affects signal radiation direction---wall-mounted, ceiling-mounted, or tilted deployments impact pattern uniformity and coverage overlap.

Antenna Pattern (D): Defines gain and directional behavior; omnidirectional antennas provide uniform coverage, while directional models concentrate energy for targeted areas.

Antenna diversity and spatial multiplexing improve throughput and reliability, but do not primarily determine raw coverage boundaries. ''Earth bulge'' is irrelevant for indoor deployments.

RUCKUS One Online Help -- Indoor RF Design and Coverage Planning

RUCKUS Analytics 3.5 User Guide -- RF Performance and Propagation Reports

RUCKUS AI Documentation -- Antenna Pattern and Coverage Optimization

In SmartZone, Generic Routing Encapsulation (GRE) tunnels are used to encapsulate client traffic and forward it to a remote gateway, typically for security or centralized routing.

As described in RUCKUS One Online Help -- GRE Tunneling Configuration, a tunnel profile becomes available for WLAN association only when it is explicitly linked to an AP Zone. This ensures that all APs in the zone can apply the correct tunnel endpoint and keying parameters.

If a GRE profile is not mapped to a zone, it will not appear in the WLAN configuration dropdown, even if successfully created.

Other options are incorrect because SmartZone supports GRE for WLANs by design, split-tunnel profiles are optional, and tunnel count limitations are far higher than typical enterprise use.

RUCKUS One Online Help -- GRE Tunnel Profile Configuration and Zone Binding

RUCKUS Analytics 3.5 User Guide -- Tunnel Status and Performance Metrics

RUCKUS AI Documentation -- GRE Tunneling Architecture and Troubleshooting