Free Cisco 300-365 Exam Practice Questions & Explanations
Prepared & Reviewed by the ValidExamDumps Editorial Team
At ValidExamDumps, we consistently monitor updates to the Cisco 300-365 exam questions by Cisco. Whenever our team identifies changes in the exam questions, objectives, focus areas or requirements, We immediately update our exam questions for both PDF and online practice exams. This commitment ensures our customers always have access to the most current and accurate questions. By preparing with these up to date and 100% exam domain coverage questions, our customers can successfully pass the Cisco Deploying Cisco Wireless Enterprise Networks exam on their first attempt without needing additional materials or study guides.
Other certification materials providers often include outdated or removed questions by Cisco in their 300-365 exam. These outdated questions lead to customers failing their Cisco Deploying Cisco Wireless Enterprise Networks exam. In contrast, we ensure our questions bank includes only precise and up-to-date questions. Our main priority is your success in the Cisco 300-365 exam, not profiting from selling obsolete exam questions in PDF or Online Practice Test.
An engineer is troubleshooting inconsistent client roaming behavior in a building where WLAN 'Corp-Data' is mapped to VLAN 20 on WLC-A but mistakenly mapped to VLAN 30 on WLC-B, both members of the same mobility group. Clients roaming from WLC-A to WLC-B experience connectivity loss and must reconnect. What is the most likely root cause and correct remediation?
Client VLAN assignment consistency directly impacts mobility behavior. When the same WLAN is mapped to different VLANs/subnets on peer controllers, the mobility architecture may either attempt a Layer 3 roam (anchoring back to the original controller unnecessarily) or, in misconfigured cases, fail to properly handle the transition, causing the client to lose its session and be forced to reconnect and obtain a new IP address. The correct remediation is to standardize VLAN-to-WLAN mapping across all controllers in the mobility group so that true Layer 2 roams occur as intended. Options C, D, and E misattribute the root cause—VLAN mapping consistency (not RF profiles or AP groups) is the documented factor governing this specific roaming behavior in the 300-365 blueprint.
A retail chain wants to deploy Cisco MSE (or its CMX-integrated successor) to provide indoor location tracking of Wi-Fi devices and BLE beacons for customer analytics, while also integrating with the wireless infrastructure for contextual awareness such as rogue detection correlation. Which statement correctly describes a core capability and integration requirement of this deployment?
Cisco MSE (and its CMX successor) integrates with the wireless network via NMSP, a protocol used between the WLC and the MSE/CMX to exchange client, rogue, interferer, and RF measurement data. APs report RSSI and other telemetry to the WLC over CAPWAP, and the WLC then forwards this data to MSE/CMX via NMSP for location calculation, analytics, and integration with services like rogue correlation. Option A is incorrect because APs communicate with the WLC, not directly with MSE. Option C describes a licensing model that does not reflect the actual NMSP-based integration. Option D is wrong since indoor Wi-Fi location relies on RSSI trilateration/multilateration, not GPS, which does not work reliably indoors.
A wireless engineer is designing VLAN assignment for a large enterprise campus using Cisco WLCs in a mobility group. To simplify roaming and avoid the overhead of Layer 3 (Etherlink) roaming events, the engineer decides to map the same WLAN to the same VLAN/subnet across every controller in the mobility group, effectively creating one large flat client subnet spanning the entire campus.
True or False: This design choice, while reducing Layer 3 roaming events, increases the size of the broadcast domain and can introduce scalability concerns such as ARP traffic overhead and larger failure domains.
This statement is true. Mapping the same VLAN across all controllers ensures clients always perform Layer 2 roams (since the subnet is consistent everywhere), which avoids the complexity of Layer 3 tunneling/anchoring. However, this comes at the cost of a much larger Layer 2 broadcast domain spanning the entire campus, which increases broadcast/ARP traffic, expands the failure domain (a single VLAN issue can affect the whole campus), and can hit practical scalability limits on switch MAC/ARP tables. This is a classic design tradeoff discussed in the 300-365 blueprint regarding client VLAN assignment and its impact on mobility.
A hospital wants a single mobility domain spanning 15 WLCs (a mix of 5520 and 8540 models) distributed across three buildings, with a design goal of minimizing the number of mobility peer relationships each controller must maintain while still supporting seamless roaming across the entire domain. Which mobility architecture best meets this requirement?
The Mobility Oracle (MO) architecture, introduced with Cisco AireOS, is designed for large multi-controller mobility domains. Instead of every controller maintaining full-mesh peer connections to every other controller, each MC/MA registers client state with a central MO, which tracks client location and reduces the total number of mobility messages and peer relationships needed. Option A (full mesh) does not minimize peer relationships—it maximizes them, causing scaling problems at 15 controllers. Option B refers to SD-Access fabric, which is a different architecture (LISP-based) not this scenario's traditional WLC mobility group context. Option D increases roaming latency and complexity since inter-group roaming requires manual mobility group list configuration and is less efficient than a hierarchical MC/MA/MO design.
A campus deployment has APs from Building A joined to WLC-1 and APs from Building B joined to WLC-2, both members of the same mobility group. A client associates to an AP on WLC-1 with a VLAN that maps to subnet 10.10.10.0/24, then roams to an AP on WLC-2 where that VLAN/subnet is not present locally. What type of roam occurs, and what happens to the client's IP addressing?
Because the client's VLAN/subnet does not exist on the new controller, this is a Layer 3 roam. The foreign controller (WLC-2) creates an entry marking the client as 'Anchor Export Foreign' and establishes an EoIP/mobility tunnel back to the anchor controller (WLC-1) that owns the client's original subnet, preserving the client's IP address and session. Option A is wrong because the subnet differs across controllers (not intra-controller). Option B is incorrect because forcing DHCP renewal would break active sessions; Layer 3 roaming exists specifically to avoid this. Option D is wrong since full re-authentication and new IP assignment defeats the purpose of seamless mobility.