Cisco Cisco Aironet 1522 Lightweight Outdoor Mesh Access Point Guide De Conception

config port linktrap {port | all} {enable | disable}–Enables or disables the up and down link traps 
for a specific controller port or for all ports.

config port adminmode {port | all} {enable | disable}–Enables or disables the administrative 
mode for a specific controller port or for all ports.

config port multicast appliance port {enable | disable}–Enables or disables the multicast 
appliance service for a specific controller port.

config port power {port | all} {enable | disable}–Enables or disables power over Ethernet (PoE) 
for a specific controller port or for all ports.

CLI commands with known keywords and proper syntax are converted to XML while improper CLI 
commands are ignored and saved to flash memory. Any field with an invalid value is filtered out and set 
to a default value by the XML validation engine.Validation occurs during bootup.

To see any ignored commands or invalid configuration values, enter the following command:

You can only execute this command before either the clear config or save config command. If 
the downloaded configuration contains a large number of invalid CLI commands, you might 
want to upload the invalid configuration to the TFTP or FTP server for analysis.

Access passwords are hidden (obfuscated) in the configuration file. To enable or disable access point or 
controller passwords, enter the following command:

config switchconfig secret-obfuscation {enable | disable}

AWPP is designed specifically for wireless mesh networking to provide ease of deployment, fast 
convergence, and minimal resource consumption.

AWPP takes advantage of the CAPWAP WLAN, where client traffic is tunneled to the controller and is 
therefore hidden from the AWPP process. Also, the advance radio management features in the CAPWAP 
WLAN solution are available to the wireless mesh network and do not have to be built into AWPP.

AWPP enables a remote access point to dynamically find the best path back to a RAP for each MAP that 
is part of the RAP’s bridge group (BGN). Unlike traditional routing protocols, AWPP takes RF details 
into account.

To optimize the route, a MAP actively solicits neighbor MAP. During the solicitation, the MAP learns 
all of the available neighbors back to a RAP, determines which neighbor offers the best path, and then 
synchronizes with that neighbor. The path decisions of AWPP are based on link quality and the number 
of hops. 

AWPP automatically determines the best path back to the CAPWAP controller by calculating the cost of 
each path in terms of signal strength and number of hops. After the path is established, AWPP 
continuously monitors conditions and changes routes to reflect changes in conditions. AWPP also 
performs a smoothing function to signal condition information to ensure that the ephemeral nature of RF 
environments does not impact network stability.