Abstract: An integrated circuit includes a first amplifier circuit coupled to receive a first voltage, a second amplifier circuit coupled to receive the first voltage, and a transistor. The second amplifier circuit is coupled to an output of the first amplifier circuit. An input of the transistor is coupled to an output of the second amplifier circuit. The transistor is coupled to the output of the first amplifier circuit. The second amplifier circuit varies a current through the transistor to the output of the first amplifier circuit based on a difference between the first voltage and a second voltage at the output of the first amplifier circuit to supply leakage current drawn by load circuits.

Abstract: Integrated circuits of the present disclosure may include a temperature dependent voltage source, a divider circuit, an adder circuit, and a voltage regulator. The divider circuit may apply a gradient tuning parameter to a first voltage provided by the temperature dependent voltage source to provide a second voltage to the adder circuit. The adder circuit may apply a level shift voltage to the second voltage to provide a third voltage to the voltage regulator. The voltage level may provide a fourth voltage to digital circuitry of an integrated circuit based on the third voltage.

Abstract: Systems and methods for allocating a per-interface access control list (ACL) counter are disclosed. An ACL is applied to a data packet received at an interface of the network element. In response to matching the highest priority ACL rule, a counter value is obtained based on a combination of a base index and an expansion index value. The base index, expansion index, and counter values are stored in their respective tables. The counter value is uniquely associated with the specific ACL rule hit and the interface used to receive the data packet. Systems and methods also allocate a next set of expansion and counter tables when their storage capacity is exceeded. When the next set of tables are allocated, the older set of tables along with their index mappings and entries are preserved.

Abstract: A traffic policy includes policy rules that specify branch actions in their action fields. A branch action specifies another policy rule in the traffic policy. Packet filters generated from the traffic policy represent the traffic policy rules and execution order semantics of the branch rules. The packet filters include resolved actions that are generated by resolving the original actions in the policy rules.

Abstract: Systems and methods for allocating a per-interface access control list (ACL) counter are disclosed. An ACL is applied to a data packet received at an interface of the network element. In response to matching the highest priority ACL rule, a counter value is obtained based on a combination of a base index and an expansion index value. The base index, expansion index, and counter values are stored in their respective tables. The counter value is uniquely associated with the specific ACL rule hit and the interface used to receive the data packet. Systems and methods also allocate a next set of expansion and counter tables when their storage capacity is exceeded. When the next set of tables are allocated, the older set of tables along with their index mappings and entries are preserved.

Abstract: Systems and methods for detecting a motor developmental delay and/or neurodevelopmental disorder of an infant are described herein. An example method can include receiving motion data associated with the infant's gross motor activity; analyzing, using a machine learning algorithm, the motion data to detect a kinematic feature; comparing the kinematic feature to an expected relationship between the kinematic feature and infant age; and detecting the neurodevelopmental disorder based on the comparison. An infant sensor suit is also described herein. An example infant sensor suit can include an article of clothing; a plurality of sensors; a power source operably coupled to the sensors; and a wireless transmitter operably coupled to the sensors. The sensors, power source, and wireless transmitter can be incorporated into the article of clothing.

Abstract: A method for managing port bandwidth in network devices. The method includes determining a first and a second ingress bandwidth of a first and a second network chip, respectively, determining an egress bandwidth of an egress port of a third network chip, determining a first and a second weight for the first and the second network chip, respectively, where the first and the second weight are determined based on a bandwidth including the first and second ingress bandwidth, processing a first data packet, received by a first ingress port administrated by the first network chip, based on the first weight and the egress bandwidth, and processing a second data packet, received by a second ingress port administrated by the second network chip, based on the second weight, and the egress bandwidth, where the destination of the first and the second data packet is the egress port.

Abstract: A method for managing port bandwidth in network devices. The method includes determining a first and a second ingress bandwidth of a first and a second network chip, respectively, determining an egress bandwidth of an egress port of a third network chip, determining a first and a second weight for the first and the second network chip, respectively, where the first and the second weight are determined based on a bandwidth including the first and second ingress bandwidth, processing a first data packet, received by a first ingress port administrated by the first network chip, based on the first weight and the egress bandwidth, and processing a second data packet, received by a second ingress port administrated by the second network chip, based on the second weight, and the egress bandwidth, where the destination of the first and the second data packet is the egress port.

Abstract: Grouping pseudowires based on hardware interfaces and configured control paths enables improved pseudowire failover performance. Signaling status changes (e.g., from standby to active status) is facilitated by using group IDs for the pseudowire groups, thereby enabling improved failover performance when there is disruption in the network.

Abstract: Grouping pseudowires based on hardware interfaces and configured control paths enables improved pseudowire failover performance. Signaling status changes (e.g., from standby to active status) is facilitated by using group IDs for the pseudowire groups, thereby enabling improved failover performance when there is disruption in the network.

Abstract: Grouping pseudowires based on hardware interfaces and configured control paths enables improved pseudowire failover performance. Signaling status changes (e.g., from standby to active status) is facilitated by using group IDs for the pseudowire groups, thereby enabling improved failover performance when there is disruption in the network.

Abstract: Grouping pseudowires based on hardware interfaces and configured control paths enables improved pseudowire failover performance. Signaling status changes (e.g., from standby to active status) is facilitated by using group IDs for the pseudowire groups, thereby enabling improved failover performance when there is disruption in the network.