Abstract: A network element is herein disclosed. The network element comprises an embedded device having one or more property affecting a function of the embedded device and one or more status; a first computing system having a first processor and a first memory, the first memory being a first non-transitory computer-readable medium storing a device microservice and a hardware entity microservice, the hardware entity microservice in communication with the embedded device; a second computing system having a second processor and a second memory, the second memory being a second non-transitory computer-readable medium storing a core framework microservice; and a communication device in communication with the first computing system and the second computing system.

Abstract: A network element is herein disclosed. The network element comprises an embedded device having one or more property affecting a function of the embedded device and one or more status; a first computing system having a first processor and a first memory, the first memory being a first non-transitory computer-readable medium storing a device microservice and a hardware entity microservice, the hardware entity microservice in communication with the embedded device; a second computing system having a second processor and a second memory, the second memory being a second non-transitory computer-readable medium storing a core framework microservice; and a communication device in communication with the first computing system and the second computing system.

Abstract: An optical device having a self-repair component capable of curing a defective component(s) is disclosed. To improve reliability as well as manufacturing yield, a photonic integrated circuit (“PIC”) for as a multi-channel optical line terminal (“OLT”) contains spare lasers or standby lasers configured to replace a failed laser(s). In one aspect, PIC includes a set of fixed-wavelength lasers (“FWLs”), a tunable-wavelength auxiliary laser (“TWAL”), a photonic detector, and a tuner. FWLs, for example, generate optical wavelengths representing optical signals. TWAL generates an optical signal with a spectrum of wavelengths based on a setting generated by the tuner. The photonic detector detects a defective wavelength. The tuner adjusts output wavelength of TWAL in response to the defective wavelength. Alternatively, PIC includes a working laser array, standby laser array, and spare laser array capable of providing two-layer laser defective protections.

Abstract: An optical device having a self-repair component capable of curing a defective component(s) is disclosed. To improve reliability as well as manufacturing yield, a photonic integrated circuit (“PIC”) for as a multi-channel optical line terminal (“OLT”) contains spare lasers or standby lasers configured to replace a failed laser(s). In one aspect, PIC includes a set of fixed-wavelength lasers (“FWLs”), a tunable-wavelength auxiliary laser (“TWAL”), a photonic detector, and a tuner. FWLs, for example, generate optical wavelengths representing optical signals. TWAL generates an optical signal with a spectrum of wavelengths based on a setting generated by the tuner. The photonic detector detects a defective wavelength. The tuner adjusts output wavelength of TWAL in response to the defective wavelength. Alternatively, PIC includes a working laser array, standby laser array, and spare laser array capable of providing two-layer laser defective protections.

Abstract: An optical device having a self-repair component capable of curing a defective component(s) is disclosed. To improve reliability as well as manufacturing yield, a photonic integrated circuit (“PIC”) for as a multi-channel optical line terminal (“OLT”) contains spare lasers or standby lasers configured to replace a failed laser(s). In one aspect, PIC includes a set of fixed-wavelength lasers (“FWLs”), a tunable-wavelength auxiliary laser (“TWAL”), a photonic detector, and a tuner. FWLs, for example, generate optical wavelengths representing optical signals. TWAL generates an optical signal with a spectrum of wavelengths based on a setting generated by the tuner. The photonic detector detects a defective wavelength. The tuner adjusts output wavelength of TWAL in response to the defective wavelength. Alternatively, PIC includes a working laser array, standby laser array, and spare laser array capable of providing two-layer laser defective protections.

Abstract: An optical device having a self-repair component capable of curing a defective component(s) is disclosed. To improve reliability as well as manufacturing yield, a photonic integrated circuit (“PIC”) for as a multi-channel optical line terminal (“OLT”) contains spare lasers or standby lasers configured to replace a failed laser(s). In one aspect, PIC includes a set of fixed-wavelength lasers (“FWLs”), a tunable-wavelength auxiliary laser (“TWAL”), a photonic detector, and a tuner. FWLs, for example, generate optical wavelengths representing optical signals. TWAL generates an optical signal with a spectrum of wavelengths based on a setting generated by the tuner. The photonic detector detects a defective wavelength. The tuner adjusts output wavelength of TWAL in response to the defective wavelength. Alternatively, PIC includes a working laser array, standby laser array, and spare laser array capable of providing two-layer laser defective protections.

Abstract: An optical device having a self-repair component capable of curing a defective component(s) is disclosed. To improve reliability as well as manufacturing yield, a photonic integrated circuit (“PIC”) for as a multi-channel optical line terminal (“OLT”) contains spare lasers or standby lasers configured to replace a failed laser(s). In one aspect, PIC includes a set of fixed-wavelength lasers (“FWLs”), a tunable-wavelength auxiliary laser (“TWAL”), a photonic detector, and a tuner. FWLs, for example, generate optical wavelengths representing optical signals. TWAL generates an optical signal with a spectrum of wavelengths based on a setting generated by the tuner. The photonic detector detects a defective wavelength. The tuner adjusts output wavelength of TWAL in response to the defective wavelength. Alternatively, PIC includes a working laser array, standby laser array, and spare laser array capable of providing two layer laser defective protections.

Abstract: An optical device having a self-repair component capable of curing a defective component(s) is disclosed. To improve reliability as well as manufacturing yield, a photonic integrated circuit (“PIC”) for as a multi-channel optical line terminal (“OLT”) contains spare lasers or standby lasers configured to replace a failed laser(s). In one aspect, PIC includes a set of fixed-wavelength lasers (“FWLs”), a tunable-wavelength auxiliary laser (“TWAL”), a photonic detector, and a tuner. FWLs, for example, generate optical wavelengths representing optical signals. TWAL generates an optical signal with a spectrum of wavelengths based on a setting generated by the tuner. The photonic detector detects a defective wavelength. The tuner adjusts output wavelength of TWAL in response to the defective wavelength. Alternatively, PIC includes a working laser array, standby laser array, and spare laser array capable of providing two layer laser defective protections.

Abstract: An apparatus and method for managing and maintaining a network device are disclosed. A process performed by a router, for example, is able to generate configuration data in accordance with network configuration of the router and store the data in a memory. A converter generates human-readable representation of requested status in accordance with configuration data. For example, command line interface (“CLI”) show output is generated by the converter for displaying system status. In one embodiment, a second converter is used to convert the configuration data to markup language configuration output such as extensible markup language (“XML”) based CLI output. A script, in one aspect, is able to run test cases to verify network configuration in light of the markup language configuration output.

Abstract: A process or method for embedding diagnostic information in a Simple Network Management Protocol (“SNMP”) response during an occurrence of provisioning error is disclosed. A network element (“NE”), in one embodiment, is able to detect an operation failure while performing a GET or a SET request from a network manager. If the enhanced diagnostic code notification is registered between the NE and manager, the NE composes a response message such as GET-RESPONSE to include a standard error code as well as an enhanced diagnostic code. The enhanced diagnostic code includes diagnostic information associated with the operation failure. After transmitting the response to the network manager, the enhanced diagnostic code is subsequently decoded in accordance with enhanced diagnostic information stored in a network manager database.

Abstract: An apparatus and method for transferring information in bulk between network devices employing File Transfer Protocol (“FTP”) are disclosed. During a network discovery process, an Element Management System (“EMS”) initiates a file generation command formatted with Simple Network Management Protocol (“SNMP”) to one or more network element (“NE”). After obtaining configuration information from one or more network devices, an NE, in one embodiment, establishes a file containing the configuration information and subsequently stores the file in a storage location. The file formatted in SNMP format is forwarded to EMS suing FTP/SFTP (secure file transfer protocol)/TFTP (trivial file transport protocol).

Abstract: An apparatus and method for improving efficiency of data transfer utilizing packet resizing to optimize network management traffic are disclosed. After obtaining a maximum link capacity of a link which is capable of transmitting information, a process of dynamic packet resizing compares the maximum link capacity with a network management system (“NMS”) maximum packet size. The outbound packet size of a network element (“NE”) is set to the maximum link capacity if the maximum link capacity of the link is smaller than the NMS maximum packet size.

Abstract: Network recovery of multiple NEs, such as at NMS restart, or at re-establishment of communication after loss of communication with the NMS that provides reduced cost and reduced the elapsed time before the NMS can start performing network monitoring.

Abstract: A network management system includes a network management server and one or more clients initiating network management messages between the server and network elements. The server parses the network management messages and communicates each message to client consoles having filtering criteria satisfied by the contents of the message.

Abstract: A network element management system which can exploit the customized interface features of a variety of versions of a variety of complex system products from a variety of manufacturers. This is done by maintaining a meta-model, which is not itself a model until instantiated, of the possible known product configurations to be interfaced to. Once the meta-model is instantiated, it provides configuration parameters which the interface program uses to build a correct configuration for the management and/or monitoring interface. This is particularly advantageous in the preferred embodiment of a telecommunications network element management system, but also has potential applicability to other large “supersystem” applications.

Abstract: An element management system that can itself be used to perform automatic remote backup of the network elements. A backup procedure is launched on a programmed schedule, to maintain a centrally located copy of the local data stored in the network elements (or their subcomponents). In accordance with a particular embodiment of the present invention, a computer/software system for managing telecommunication network elements includes one or more operator-driven processes which monitor and manage network elements in real time, using at least one telecommunications network control channel. Background processes which remotely back-up information which had been locally stored in ones of said network is automatically initiated.

Abstract: An architecture for distributing digital information to subscriber units wherein selection from among multiple digital services is accomplished by transmitting a tuning command from a subscriber unit to an intermediate interface. The intermediate interface selects the desired service from a broadband network and transmits it to the subscriber unit over a bandwidth-constrained access line. The bandwidth-constrained access line may be implemented with existing infrastructure, yet the subscriber unit may access a wide variety of digital information -available on the broadband network. Universal broadband access is thus provided at low cost.

Abstract: A new approach to maintaining concurrency in a network element management database. A background process constantly monitors the channels which carry network element configuration commands, and automatically parses any messages which carry information about the status of network elements. The information derived from parsing these messages is then used for a dynamic update of the database of network element attributes. This means that the database is completely current on the very latest status changes, and operators do not have to cross-check log files to see if their data is current. Instead, a simple database query retrieves fully current information.

Abstract: An element management system in which: a list of fully-qualified versions of network elements is maintained, and the interface to each network element is managed in accordance with the highest fully-qualified version which is no later than the network element's actual version date, EVEN IF there is also a fully-qualified later version. By specifying a “managed level” which is fully qualified and is guaranteed not to be later than the actual revision of the network element, the possibility of hidden incompatibility is reduced. (Network elements are expected to be backwards compatible, but the addition of features may introduce some hidden forward incompatibility.).

Abstract: The present invention provides in-place, phased migration from one version of a database software application release version to another of a software release version. A method for phased migration of a database software application comprises developing a database software application in a plurality of phases of development, at least some of the plurality of phases of development requiring a change in a schema of a database used by the database software application; and for each of the phases of development that requires a change in a schema of the database, performing phase-wise migration of the database by sequentially modifying the schema of the database based on the changes in the schema of the database required by each phase.