A.  

It automatically represents all nodes grouped by the location string assigned during the NE creation.

B.  

It represents all supervised nodes grouped by alarm status (with a different color).

C.  

It allows context sensitive navigation and represents nodes and related physical connections with different colors. depending on the active alarms.

D.  

It allows the graphical visualization of the services deployed in the network with the details of the boards involved in the service.

A.  

It is an RJ-45 interface (a common Ethernet port) used for cascading 1830 PSS nodes (e.g., external shelves)

B.  

It is an RJ-45 interface (a common Ethernet port) that has to be configured with an IP address for node reachability and management

C.  

It is an RJ-45 interface (common Ethernet port) used to connect one or more client ports (e.g., 1Gb/s or legacy 100Mbit/s client flows)

D.  

It is an RJ-45 interface (a common Ethernet port) used to export active alarms to an external device, typically equipped with several LEDs

A.  

Yes, during the link creation through the wizard

B.  

No, a unique type is allowed per design for all segments

C.  

No, as the fiber type is selected for links only and it's one for whole design

D.  

Yes, during the segment creation phase or editing

A.  

Full synchronization retrieves the correlated alarms from the node

B.  

Node synchronization is executed to test the reachability of a node

C.  

Node synchronization is executed to align the time of the node to the time of the NFM-T platform

D.  

Full synchronization retrieves all items from the node (NE parameters.Ports, Alarms, Internal Links,etc)

A.  

A node with only one direction and therefore a terminal node

B.  

A node with only one express channel and therefore made of two sides

C.  

A node with only east and west sides without directions towards north and south

D.  

A node with one direction only and therefore used as In-Line-Amplifier (ILA)

A.  

The amplification is done simultaneously for all channels as they enter the board.

B.  

As the incoming signal power increase, the gain of the amplifier is reduced.

C.  

The pump light travels in the same direction of the signal, amplifying it while it flows in the fiber towards the following node.

D.  

The pump light travels in the opposite direction of the signal to be amplified, amplifying it while it arrives from the adjacent node.