Pass the CWNP CWDP Wi-Fi Design CWDP-305 Questions and answers with ExamsMirror

Comprehensive and Detailed Explanation:

The 2.4 GHz band has only three non-overlapping channels: 1, 6, and 11.Using other channels can lead to overlapping and interference.To prevent this, the automatic channel assignment settings should be configured to use only channels 1, 6, and 11, ensuring minimal overlap and optimal performance.

Channels 116-124 in the 5 GHz band fall under the Dynamic Frequency Selection (DFS) range. These channels are shared with radar systems, such as those used by airports. When radar activity is detected, Access Points (APs) operating on DFS channels must vacate the channel, leading to potential disruptions in service. In environments near airports, it's advisable to avoid using DFS channels to prevent such interruptions, ensuring a stable and reliable wireless experience for voice devices.

Centralized data forwarding means all wireless traffic is tunneled back to a central controller, which handles tasks such as filtering, firewalling, and policy enforcement.

From CWDP-305:

“Centralized data forwarding enables consistent policy enforcement and traffic filtering by handling all traffic at the controller rather than at individual APs.”

This approach provides better control and visibility, especially in environments with strict security and traffic management requirements.

— Reference: CWDP-305 Official Study and Reference Guide, Chapter on Infrastructure Design

The 5 GHz UNII-2 (5.250–5.350 GHz) and UNII-2e (5.470–5.725 GHz) bands are subject to Dynamic Frequency Selection (DFS) regulations due to their shared use with radar systems. If radar activity is detected, devices operating in these bands must cease transmission or switch channels to prevent interference. Therefore, to avoid potential disruptions, it's advisable to steer clear of these bands in environments where radar detection is a concern.

Comprehensive and Detailed Explanation:

WPA/WPA2-Personal is typically used in scenarios where:

A.Client devices lack support for 802.1X/EAP, making enterprise authentication methods unfeasible.

C.Devices are provisioned in bulk with shared credentials, simplifying deployment without the complexity of individual 802.1X configurations.

However:

B.High-latency roaming is undesirable; low-latency is preferred for seamless connectivity.

D.Requiring unique access credentials aligns more with WPA/WPA2-Enterprise, which supports individual authentication.

Mounting location significantly impacts AP radiation patterns and coverage. A wall mount vs. ceiling mount can change signal distribution, SNR, and roaming performance. In such cases, the design assumptions have changed and must be reassessed. Stakeholders must be informed.

From CWDP-305:

“If deviations from the installation design occur, such as AP mounting position changes, the RF environment will likely be affected. The only responsible action is to reassess and, if needed, redesign to meet stated requirements.”

— Reference: CWDP-305 Official Study and Reference Guide, Chapter on Post-Design ValidationandTroubleshooting

In this scenario, lightweight APs are connected to access ports on VLANs 7, 8, and 9. When these APs boot up, they obtain IP addresses via DHCP on the VLAN to which they are physically connected. Each AP then establishes a Layer 3 CAPWAP tunnel to the WLAN controller. The initial DHCP process occurs before the tunnel is established, so the IP address assigned to each AP is associated with its local VLAN (7, 8, or 9).DumpsPedia

In public Wi-Fi environments, it's common to implement security measures that prevent clients from communicating directly with each other. This is achieved through peer-to-peer blocking, also known as client isolation. When enabled, this feature ensures that each client can communicate with the AP and access external networks but cannot interact with other clients on the same WLAN.

This setup enhances security by reducing the risk of attacks or unauthorized access between clients.

Comprehensive and Detailed Explanation:

Passive RFID tags lack an internal power source and rely on energy transmitted from an RFID reader to power up and communicate. In WLAN designs supporting RTLS, passive tags do not directly communicate with the WLAN infrastructure. Instead, they depend on tag readers to capture their information and relay it to the location server. This design consideration is crucial for accurate asset tracking and management.

The Bill of Materials (BoM) is a comprehensive list detailing all hardware components, devices, and materials required for the deployment of a WLAN infrastructure. It serves as a reference for procurement and ensures that all necessary items are accounted for before the deployment begins. Unlike the Statement of Work, which outlines the scope and objectives, or the design report, which provides technical specifications, the BoM focuses specifically on the tangible components needed for implementation.