IP Library Granted Patent US 8,891,965
Granted Patent B2
US 8,891,965 · App. 13/325,379 · Granted Nov 18, 2014

Method for automatic configuration of an optical network element

Inventors: Cornelius Fuerst (Fuerstenfeldbruck, DE); Joerg-Peter Elbers (Fuerstenfeldbruck, DE); Andreas Faerbert (Munich, DE)
Assignee: ADVA Optical Networking SE
H04J14/0227H04J14/0258H04J14/0221H04J14/0205H04J14/0269H04J14/0212H04J14/0276H04J14/0217
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Quick Facts
Patent No.
US 8,891,965
App. No.
13/325,379
Granted
Nov 18, 2014
Kind
B2
Abstract

A method for automatic confirmation of an optical network element optical modules each having multiple fibers; a fiber shuffle interconnector having ports to which said optical modules are connected; and a configuration unit which performs an automatic configuration of said optical network element by controlling all optical modules connected to said fiber shuffle interconnector to transmit a fiber identifier associated with a fiber of the respective optical module to the respective port of said fiber shuffle interconnector to which said optical module is connected, wherein said fiber shuffle interconnector forwards the received fiber identifier via another port of said fiber shuffle interconnector to another optical module of said optical network element which detects said forwarded fiber identifier being monitored by said configuration unit to generate a connectivity matrix indicating the connection of said optical modules to said fiber shuffle interconnector on the basis of the detected fiber identifiers.

Claims (48)

1. An optical network element comprising:

optical modules each having multiple fibres;

at least one fibre shuffle interconnector having ports to which said optical modules are connected; and

a configuration unit which performs an automatic configuration of said optical network element by controlling the optical modules connected to said fibre shuffle interconnector to transmit a fibre identifier associated with a fibre of the respective optical module to the respective port of said fibre shuffle interconnector to which said optical module is connected, wherein said fibre shuffle interconnector forwards the received fibre identifier via another port of said fibre shuffle interconnector to another optical module of said optical network element which detects said forwarded fibre identifier being monitored by said configuration unit to generate a connectivity matrix indicating the connection of said optical modules to said fibre shuffle interconnector on the basis of the detected fibre identifiers,

wherein said optical modules comprise a fan-out-module having an interface for connecting the fibres of said fan-out-module to a port of said fibre shuffle interconnector via one or more multifibre cables and an inline interface for connecting the fan-out-module to an optical network interface of a line switch.

2. The optical network element according to claim 1 ,

wherein said configuration unit comprises:

a control unit which controls said optical modules to transmit at least one fibre identifier associated with a fibre of said optical module,

a monitoring unit which monitors fibre identifiers detected by said optical modules and

a memory unit for storing the generated connectivity matrix of said optical network element.

3. The optical network element according to claim 2 ,

wherein the fibre identifier comprises:

an optical pilot signal and/or

an optical encoded signal.

4. The optical network element according to claim 3 ,

wherein said optical modules comprise for each transmitting fibre means for providing a fibre identifier and

for each receiving fibre means for detecting a fibre identifier.

5. The optical network element according to claim 1 ,

wherein said fan-out-module comprises

at least one wave length selective switch (WSS) connected to receiving or transmitting fibres and/or

at least one coupler connected to receiving fibres of said fan-out-module.

6. The optical network element according to claim 5 ,

wherein said ports of said fibre shuffle interconnector are connected to said optical modules by means of multifibre cables comprising MPO cables and MTP cables.

7. The optical network element according to claim 5 ,

wherein an open port of said fibre shuffle interconnector being not connected to an optical module is terminated by a multifibre loopback connector to measure loopback losses.

8. The optical network element according to claim 5 ,

wherein said optical modules comprise for each fibre signal generating means to generate an optical signal having a predetermined signal power for the respective fibre and

signal measuring means to measure automatically through losses and loopback losses.

9. An add-drop-multiplexing device for an optical network comprising at least one flexible add/drop optical network element according to claim 8 .

10. A method for automatic configuration of an optical network element comprising optical modules each having multiple fibres,

said optical modules being connected by means of a fibre shuffle interconnector,

wherein said method comprises the steps of:

(a) transmitting for all provided optical modules of said optical network element a fibre identifier associated with a fibre of the respective optical module to a port of said fibre shuffle interconnector which forwards the received fibre identifier via another port to another optical module of said optical network element which detects said forwarded fibre identifier; and

(b) generating a connectivity matrix indicating the connection of said optical modules to said fibre shuffle interconnector on the basis of the detected fibre identifier,

wherein said optical module comprises a fan-out-module having an interface for connecting the fibres of said fan-out-module to a port of said fibre shuffle interconnector via one or more multifibre cables and an inline interface for connecting the fan-out-module to an optical network interface of a line switch.

11. The method according to claim 10 ,

wherein said method is performed during installation of said optical network element.

12. The method according to claim 10 ,

wherein said method is performed during an operation of said optical network element.

13. The method according to claim 12 ,

wherein said fibre identifier comprises

an optical pilot signal; and/or

a specific encoded optical signal.

14. The method according to claim 10 , wherein said optical modules are controlled to transmit at least one fibre identifier associated with a fibre of said optical module,

wherein fibre identifiers detected by said optical modules are monitored, and

wherein the generated connectivity matrix of said optical network element is stored.

15. The method according to claim 10 , wherein the fibre identifier comprises an optical pilot signal and/or an optical encoded signal.

16. The method according to claim 10 , wherein said optical modules comprise for each transmitting fibre means for providing a fibre identifier and for each receiving fibre means for detecting a fibre identifier.

Assignments (4)
CHANGE OF NAME Recorded Nov 14, 2023
From: ADVA OPTICAL NETWORKING SE
To: ADTRAN NETWORKS SE
Reel/Frame 065567/0165 →
CORRECTIVE ASSIGNMENT TO CORRECT THE THE ADDRESS OF THE ASSIGNEE PREVIOUSLY RECORDED ON REEL 029792 FRAME 0762. ASSIGNOR(S) HEREBY CONFIRMS THE CONVEYING PARTY: ADVA AG OPTICAL NETWORKING RECEIVING PARTY: ADVA OPTICAL NETWORKING SE. Recorded Oct 8, 2013
From: ADVA AG OPTICAL NETWORKING
To: ADVA OPTICAL NETWORKING SE
Reel/Frame 031372/0366 →
CHANGE OF NAME Recorded Feb 11, 2013
From: ADVA AG OPTICAL NETWORKING
To: ADVA OPTICAL NETWORKING SE
Reel/Frame 029792/0762 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 27, 2012
From: FUERST, CORNELIUS; ELBERS, JOERG-PETER; FAERBERT, ANDREAS
To: ADVA AG OPTICAL NETWORKING
Reel/Frame 027604/0591 →
Priority Claims (1)
EP 10196855 · Dec 23, 2010 · regional
Continuity (1)
Related Publication 20120328239A1 · Dec 27, 2012