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| Section | Weight | Objectives |
|---|---|---|
| Topic 1: WLAN High Availability | 20% | - Design AP high availability - Design controller high availability |
| Topic 2: Wired and Wireless Infrastructure | 30% | - Physical infrastructure requirements - Design wireless bridging (mesh) - Design for data, voice, video, location - Design radio management - Logical infrastructure requirements - Design high-density wireless networks |
| Topic 3: Wireless Site Survey | 25% | - Pre-deployment site survey - Layer 1 site survey analysis - Predictive site survey - Planning tools and network metrics evaluation - Material attenuation and its design effects - Post-deployment site survey - Collect design requirements and evaluate constraints |
| Topic 4: Mobility | 25% | - Validate mobility tunneling - Site Tags - Design mobility groups - Optimize client roaming |
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NEW QUESTION # 119
An engineer must design and configure a wireless network for pervasive coverage in an oil terminal, casual web and email traffic, 5 GHz. What is the best design?
Answer: C
Explanation:
An oil terminal presents specific wireless design constraints: the requirement is pervasive coverage (maximum geographic coverage) for low-bandwidth applications (casual web and email). These requirements prioritize coverage reach over throughput optimization. The correct approach is to keep all data rates enabled, including lower rates such as 6, 9, 12, and 18 Mbps - because in an industrial environment with challenging RF propagation paths, reflective surfaces, and potential obstructions, lower data rates extend the functional coverage range of each AP. Web and email traffic does not require high data rates; even 1-6 Mbps is sufficient for these applications. Disabling rates below 54 Mbps (Option A) would dramatically shrink each AP ' s effective coverage area, requiring many more APs for pervasive coverage and failing the primary design objective. Assigning static maximum power without RRM auto-adjustment creates excessive co- channel interference. Disabling rates below 24 Mbps (Option C) still reduces coverage reach unnecessarily.
Disabling 802.11n and 802.11ac MCS rates (Option D) prevents the AP from using high-efficiency modulation for nearby clients without coverage benefit. Auto power assignment combined with all rates enabled provides the optimal balance for pervasive industrial deployment. Reference: WLSD Study Guide - Industrial WLAN Design, Coverage vs. Capacity Trade-offs, Data Rate Configuration for Pervasive Coverage.
NEW QUESTION # 120
An engineer is designing coverage for a distribution warehouse with 12 m ceilings and metal racking that reaches 10 m. Which antenna design approach should be used?
Answer: B
Explanation:
In a high-bay warehouse, an omnidirectional antenna mounted at the ceiling radiates most of its energy horizontally across the top of the racking, where no clients exist, while the aisles below sit in the antenna's null. Metal racking and dense inventory further block any signal that does propagate downward. High-gain directional antennas - typically patch or narrow-beam downtilt models - concentrate energy into a defined pattern that can be aimed down the aisle or vertically into the picking area, delivering usable signal to scanners and forklift terminals at floor level while limiting spill into adjacent aisles. That containment also improves channel reuse in a space that is otherwise one large open volume. Mounting APs facing upward or at floor level places the antenna where it will be blocked or physically damaged, and low-gain omnidirectional antennas lack the pattern control this environment demands.
NEW QUESTION # 121
An engineer is designing a wireless solution for a corporate campus which includes two primary buildings: Research and Operations. The design must ensure seamless mobility for employees moving between buildings, support uninterrupted connectivity for real-time applications, and facilitate efficient Layer 2 and Layer 3 roaming. Each building's 9800-80 WLC manages its local APs, and the solution must support 802.11r/k/v while maintaining an effective mobility control plane. Which design approach leverages Cisco mobility group architecture to meet the requirements?
Answer: A
Explanation:
Cisco's mobility group architecture enables seamless client roaming between WLCs by establishing a trusted peer relationship and shared mobility domain. When two Cisco Catalyst
9800-80 WLCs are placed in the same mobility group, they establish CAPWAP mobility tunnels enabling both Layer 2 and Layer 3 roaming with session continuity including IP address preservation. Within the same mobility group, WLCs exchange client state information, allowing
802.11r Fast BSS Transition, 802.11k neighbor reports, and 802.11v BSS Transition Management to function across controller boundaries. No specific primary or secondary roles are assigned within a mobility group -- all members are peers with equal standing for roaming purposes, which is precisely what Option D describes.
NEW QUESTION # 122
An engineer is deploying new APs to serve IEEE 802.11g through 802.11ac clients and wants to use the Ekahau Site Survey tool to verify RF coverage. Management wants the engineer to verify and create coverage maps as quickly as possible. Which configuration accomplishes the goal?
Answer: C
Explanation:
In Ekahau Site Survey, passive mode involves listening to beacon frames and probe responses from deployed APs without the survey laptop actively associating to any SSID. This is significantly faster than active mode because no association, DHCP, or throughput test overhead is introduced - the surveyor simply walks the floor while Ekahau passively captures signal strength data from all visible APs simultaneously. Using two wireless adapters in passive mode provides a critical speed advantage: one adapter scans 2.4 GHz channels while the second adapter simultaneously scans 5 GHz channels. Without dual adapters, a single adapter must time-multiplex between bands, reducing the sample rate per band and either slowing the survey walk or producing sparser data. Active mode (Options B and C) is used when throughput measurements are required for specific application validation such as voice or video, but it is inherently slower due to association overhead and sequential testing. The combination of passive scanning and dual adapter configuration delivers the highest possible data collection rate per unit of walk time. Reference: WLSD Study Guide - Ekahau Site Survey Modes, Passive vs. Active Survey Methodology, Multi-Adapter Survey Configuration.
NEW QUESTION # 123
An engineer is designing a high-density WLAN that must support 100 concurrent users with 100 Mbps throughput consistently. The design allows for 20 Mbps per cell and per channel on the 5 GHz band. How many channels must the design use to provide 1 Mbps per user prior to RF overhead?
Answer: D
Explanation:
This question requires straightforward wireless capacity engineering calculation. The total throughput requirement is 100 users ร 1 Mbps per user = 100 Mbps aggregate. Each channel in the design can support 20 Mbps of usable throughput - this is the per-cell, per-channel allocation defined in the design parameters, representing usable throughput prior to RF overhead as stated in the question. The number of channels required is therefore: total required throughput divided by throughput per channel = 100 Mbps รท 20 Mbps per channel = 5 channels. In practice, each channel corresponds to a non-overlapping frequency assignment in the
5 GHz band. With 5 channels and 20 Mbps per channel, the design provides exactly 100 Mbps of aggregate capacity for 100 concurrent users at 1 Mbps each. This calculation methodology is foundational to Cisco ' s high-density WLAN design approach, where the number of spatial streams, channel allocations, and AP placement are all derived from the per-user throughput requirement multiplied by the concurrent user population. Reference: WLSD Study Guide - High-Density WLAN Capacity Planning, Per-User Throughput Calculation, Channel Planning and Spatial Reuse.
NEW QUESTION # 124
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