Free Cisco 300-360 Exam Practice Questions & Explanations
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A retail chain asks an engineer to design WLAN for 40 stores with an identical floor plan and construction. The engineer performs a full on-site survey at one representative store, documents wall types, attenuation values and validated AP placement, then applies that validated model predictively to the remaining stores with a spot-check validation survey at each.
Is this an acceptable design methodology for this vertical?
True. For cookie-cutter deployments such as retail chains where building construction, materials and floor plans are truly identical, industry and Cisco design practice permits surveying one representative site in detail to calibrate the predictive model, then applying that model to the remaining locations. A post-installation validation or spot-check survey at each remaining site is still required to confirm real-world coverage, SNR and interference, since local variations (shelving, refrigeration, neighboring RF) can differ.
Before beginning a design for a manufacturing customer, an engineer meets with the business stakeholders. The customer states they will deploy tag-based asset tracking with location accuracy requirements, plus data and video applications.
How should this business/RF application requirement change the coverage design compared with a standard data-only design?
Location/RFID tracking requires that each tag or device be detected by a minimum of three, preferably four, APs at -75 dBm or better, with APs placed around the perimeter and corners as well as the interior in a staggered pattern. This usually increases AP count and changes placement compared with a coverage-only or capacity-only data design.
A is wrong because a data design does not guarantee the multi-AP detection geometry location requires. B is wrong because omitting perimeter and corner APs is the classic cause of poor location accuracy. D is wrong because raising power distorts RSSI-based location, increases co-channel interference, and does not fix AP geometry.
An engineer has completed a predictive design and a passive/active validation survey for a hospital deployment. The customer's project manager asks for the deliverable set that will be handed to the installation contractor and to the operations team.
Which item is a required component of the final site survey report for this purpose?
A complete site survey report includes an executive summary, methodology, assumptions, and above all annotated floor plans showing AP placement with unique identifiers, antenna model/orientation/downtilt, mounting height and cabling notes, together with heat maps for signal strength, SNR, data rate and channel overlap. This is exactly what the installer and operations team need.
A is wrong because heat maps and AP placement drawings are core deliverables. C is a security violation and not a survey deliverable. D is wrong because raw captures without analysis and interference source identification do not constitute a report.
A logistics customer needs wireless coverage in a 30-meter-high automated warehouse with metal racking, freezer sections, and handheld barcode scanners that support only 802.11n at 2.4 GHz. Voice over WLAN on the same handhelds is also required.
Which two design considerations are most critical for this vertical? (Choose two.)
Warehouse designs must account for the lowest common denominator client (the scanner), because the AP typically transmits at higher power than the handheld; the link budget must be balanced to the client's capability. Metal racking and stock levels drastically change RF propagation, so aisle-directed antennas and surveys performed under realistic (stocked) conditions are required.
B is wrong because very high omnidirectional mounting in racked environments creates poor coverage in aisles and excessive co-channel interference. D is wrong because voice requires roughly -67 dBm cell edge with 25 dB SNR, not -80 dBm. E is wrong because disabling 5 GHz throws away capacity needed by other clients and is not a coverage remedy.
A university is designing Wi-Fi for a 900-seat lecture hall. The client mix is roughly 60 percent 802.11ac/ax laptops, 30 percent smartphones, and 10 percent legacy 802.11b/g-only lab devices. Students stream lecture video and use a cloud LMS. The design engineer must build a high-density design that maximizes aggregate throughput.
Which design action best addresses the impact of this client mix on capacity?
In high density, capacity is driven by airtime. Slow legacy clients consume disproportionate airtime, so the design should disable/reduce the lowest mandatory data rates, isolate legacy 2.4 GHz devices, and use band select/steering to move dual-band clients to 5 GHz where more non-overlapping channels and more spectrum exist.
A is wrong because enabling low mandatory rates increases airtime consumption and cell size. C is wrong because maximum power increases co-channel interference and cell overlap, reducing capacity. D is wrong because each additional SSID multiplies beacon and management overhead, which is especially harmful in high density; SSID count should be minimized (typically three or fewer).