Abstract: A system may receive network device configuration information associated with a network service. The system may determine multiple settings associated with the network service based on receiving the network device configuration information. The multiple settings may include a common setting and a device-specific setting. The system may generate a first network service model of the network service based on the multiple settings. The first network service model may include multiple nodes corresponding to the multiple settings. The system may re-configure one or more nodes associated with the first network service model, and may generate a second network service model of the network service. The system may generate a user interface template based on the second network service model and may provide the user interface template to a client device for display. The client device may allow a configuration of the multiple settings based on the user interface template.

Abstract: A device may receive a request to establish a connection to a network device or one or more other network devices. The request may include a destination identifier that identifies a destination to which the request is to be provided. The one or more other network devices may be associated with a same Internet protocol (IP) address as the network device. The device may determine, from the destination identifier, a device identifier that identifies the network device or another network device as the destination to which the request is to be provided. The device may determine whether the device identifier matches a set of stored device identifiers. The device may provide the request to the network device or the other network device based on determining that the device identifier matches the set of stored device identifiers. The device may perform an action related to the request or the connection.

Abstract: A device may receive one or more first objects and one or more second objects to be processed. The device may store, in a first queue, information identifying the one or more first objects, the one or more second objects, and an order in which the one or more first objects and the one or more second objects were received. The device may store, in a second queue, information identifying the one or more first objects based on the one or more first objects being associated with the first priority level. The device may process the one or more first objects and the one or more second objects based on the first queue and the second queue. The device may perform one or more actions based on processing the one or more first objects and the one or more second objects.

Abstract: Techniques are described for grouping related flows using a flow attribute value indicated by a modified protocol independent multicast (PIM) join request. According to techniques of this disclosure, a network device is configured to receive, from a downstream network device, two or more first PIM join requests indicating two or more multicast groups. In response to determining that each first PIM join request of the two or more first PIM join requests indicates a common first flow attribute value, the network device is configured to select a common path. The network device is further configured to send two or more second PIM join requests indicating the two or more multicast groups to an upstream network device along the selected common path and toward the source. Each second PIM join request of the two or more second PIM join requests includes a common second flow attribute value.

Abstract: Described are various configurations of integrated wavelength lockers including asymmetric Mach-Zehnder interferometers (AMZIs) and associated detectors. Various embodiments provide improved wavelength-locking accuracy by using an active tuning element in the AMZI to achieve an operational position with high locking sensitivity, a coherent receiver to reduce the frequency-dependence of the locking sensitivity, and/or a temperature sensor and/or strain gauge to computationally correct for the effect of temperature or strain changes.

Abstract: The disclosed apparatus may include (1) a database that stores management data in connection with a network protocol implemented within a network that includes a plurality of NMSes and (2) a processing unit having access to the database, wherein the processing unit (A) receives, from an NMS within the plurality of NMSes, a request for at least a portion of the management data stored in the database and then, in response to receiving the request from the NMS, (B) retrieves the requested portion of management data from the database, (C) provides the requested portion of management data to the NMS, and (D) provides the requested portion of management data to at least one additional NMS within the plurality of NMSes even though the additional NMS did not initiate the request for the portion of management data. Various other apparatuses, systems, and methods are also disclosed.

Abstract: In some embodiments, an apparatus includes a gateway device that can be operatively coupled to a switch via a set of links. The gateway device can operatively couple a network node during a communication session with the switch, and can store an association between the communication session of the network node and a link such that data sent via the communication session of the network node is sent via the link. In such embodiments, the gateway device can receive, from a virtual port associated with the network node, a login request. The gateway device can send the login request to the switch to initiate a communication session between the virtual port and the switch. The gateway device can also associate the communication session of the virtual port with the link based on the communication session of the network node being associated with the link.

Abstract: The disclosed apparatus may include a set of router components that are consuming electrical power in connection with a router that facilitates network traffic within a network. The apparatus may also include a power-optimization unit communicatively coupled to the set of router components. The power-optimization unit may detect at least one router component included in the set of router components that is not currently being used by the router to facilitate the network traffic within the network. In response to detecting the router component that is not currently being used by the router, the power-optimization unit may shut off the router component such that the router component no longer consumes electrical power in connection with the router. Various other apparatuses, systems, and methods are also disclosed.

Abstract: The disclosed apparatus may include (1) a panel coupled to a network device that includes multiple network ports that each facilitate one or more network links, the panel including (A) an array of port-status indicators that each represent a status of one of the network ports on the network device and (B) an array of link-status indicators that are each dynamically assigned to represent a status of one of the network links and (2) a physical processing device communicatively coupled to the arrays of port-status indicators and link-status indicators, wherein the physical processing device (A) identifies a link-status indicator that has been dynamically assigned to a specific network link, (B) identifies a port-status indicator that corresponds to a specific network port that facilitates the specific network link, and (C) directs the port-status indicator and the link-status indicator to visually indicate whether the specific network link is functional or non-functional.

Abstract: In some examples, a computing device includes one or more processors and a physical interface device (IFD) connected to one or more of the processors. One or more of the processors are configured to detect a change in physical link status for a physical link in a network interface card, receive a list of active virtual machines associated with the physical link, and transmit a virtual IFD status notification message to the active virtual machines of virtual IFDs impacted by the physical link status change, the virtual IFD status notification message identifying the physical link status change.

Abstract: A switch interface board may include a first serializer/deserializer to communicate with a first group of packet processing components of a first chassis via a first port. The first chassis may house the switch interface board and the first group of packet processing components. The switch interface board may include a second serializer/deserializer to communicate with a second switch interface board of the first chassis via a second port. The second switch interface board may be connected to a second group of packet processing components of the first chassis. The second group of packet processing components may be different from the first group of packet processing components. The switch interface board may include a third port to communicate with a third switch interface board of a second chassis or a switching device of a cross-connect chassis.

Abstract: An article may include an optical transceiver package, which may include a photonics component mounted in the optical transceiver package. The photonics component may generate heat in an operational state. The optical transceiver package may include a sealed thermal chamber that maintains the photonics component between a lower predetermined working temperature and a higher predetermined working temperature. The sealed thermal chamber may include a material that exhibits a first thermal conductivity below a lower predetermined threshold temperature and a second thermal conductivity higher than the first thermal conductivity above an upper predetermined threshold temperature. A method may include retaining the generated heat to raise the photonics component above a lower predetermined working temperature, and conducting the generated heat away from the optical transceiver package to lower the photonics component below an upper predetermined working temperature.

Abstract: In some embodiments, an apparatus comprises an optical transponder which includes a processor, an electrical interface and an optical interface. The processor is operatively coupled to the electrical interface and the optical interface. The optical interface is configured to be operatively coupled to a plurality of optical links and the electrical interface is configured to be operatively coupled to a router such that the optical transponder is configured to be operatively coupled between the plurality of optical links and the router. The processor is configured to perform pre-forward error correction (FEC) bit error rate (BER) detection to identify a degradation of an optical link from the plurality of optical links. The processor is configured to make modifications to packets designated to be transmitted via the optical link in response to the degradation being identified such that the router is notified of the degradation of the optical link.

Abstract: Techniques are described for avoiding traffic loss in a network when a designated router (DR) for a L2 broadcast communication domain loses its route toward a multicast traffic source. The disclosed techniques may be utilized in a scenario where a receiver is multi-homed to a DR network device and a non-DR network device by a L2 broadcast communication domain. Both the DR and the non-DR network devices receive a request from the receiver identifying a multicast group in which the receiver is interested. The non-DR network device monitors traffic injected into the L2 broadcast communication domain by the DR in order to determine whether the DR has lost the route to the source of the multicast group. If the DR has lost the route, the non-DR network device performs a repair by sending the multicast data traffic for the multicast group to the receiver on the L2 broadcast communication domain.

Abstract: Apparatus and methods described herein relate to an apparatus including a set of ports and a processor operatively coupled to each port of the set of ports. A port from the set of ports can be associated with a port of a multi-chassis aggregate (MCAE) interface and a virtual local area network (VLAN). The processor can generate an untagged data unit and tagged data units. The processor can send the untagged data unit and the tagged data units via the port from the set of ports, and can receive a tagged data unit included in the tagged data units, and/or the untagged data unit. The processor can also forward the received data unit to a destination network peer when the received tagged data unit is associated with the VLAN, and can disable the port of the MCAE interface in response to the port from the set of ports receiving the data unit, when the received data unit is associated with the VLAN.

Abstract: Described are various configurations of integrated wavelength lockers including asymmetric Mach-Zehnder interferometers (AMZIs) and associated detectors. Various embodiments provide improved wavelength-locking accuracy by using an active tuning element in the AMZI to achieve an operational position with high locking sensitivity, a coherent receiver to reduce the frequency-dependence of the locking sensitivity, and/or a temperature sensor and/or strain gauge to computationally correct for the effect of temperature or strain changes.

Abstract: In one embodiment, an apparatus includes a memory, a communications interface and a processor. The processor is operatively coupled to the memory and the communications interface. The processor is configured to receive, at a first time, a label identifier associated with an aggregated link within the communications network via the communications interface. The aggregated link including a plurality of redundant links. The processor is configured to receive, at a second time after the first time, a data packet including the label identifier via the communications interface. The processor is configured to send at least a portion of the data packet via a first link separate from the aggregated link based on the label identifier. The processor is configured to not send the data packet via a link from the plurality of redundant links of the aggregated link based on the label identifier.

Abstract: A system may comprise a first device and a second device associated with a Clos architecture. The first device may include a first crossbar that comprises a first component, a second component, and a third component. The second device may include a second crossbar that comprises a fourth component, a fifth component, and a sixth component. The first component may connect to the second component and the fifth component. The second component may connect to the first component, the third component, the fourth component, and the sixth component. The third component may connect to the second component and the fifth component. The fourth component may connect to the second component and the fifth component. The fifth component may connect to the first component, the third component, the fourth component, and the sixth component. The sixth component may connect to the second component and the fifth component.

Abstract: An apparatus includes a first reconfigurable optical add/drop multiplexer (ROADM) to receive a first optical signal and a second ROADM to receive a second optical signal. The apparatus also includes a reconfigurable optical switch that includes a first switch, switchable between a first state and a second state, to transmit the first optical signal at the first state and block the first optical signal at the second state. The reconfigurable optical switch also includes a second switch, switchable between the first state and the second state, to transmit the second optical signal at the first state and block the second optical signal at the second state. The reconfigurable optical switch also includes an output port to transmit an output signal that is a sum of possible optical signals transmitted through the first switch and the second switch.

Abstract: In some embodiments, an apparatus comprises an optical transponder which includes a processor, an electrical interface and an optical interface. The processor is operatively coupled to the electrical interface and the optical interface. The optical interface is configured to be operatively coupled to a plurality of optical links and the electrical interface is configured to be operatively coupled to a router such that the optical transponder is configured to be operatively coupled between the plurality of optical links and the router. The processor is configured to perform pre-forward error correction (FEC) bit error rate (BER) detection to identify a degradation of an optical link from the plurality of optical links. The processor is configured to make modifications to packets designated to be transmitted via the optical link in response to the degradation being identified such that the router is notified of the degradation of the optical link.