Abstract: Example method includes: allocating, by a main processor of a wireless access point (WAP) comprising at least the main processor and a plurality of co-processors wherein the main processor and the plurality of co-processors both have access to a random-access memory (RAM) co-located within the WAP, a dedicated non-overlapping segment of the RAM to each of the plurality of the co-processors; receiving, by the main processor of the WAP, a notification from one of the plurality of co-processors indicating that an exception previously defined by the one of the plurality of co-processors has occurred; determining, by the main processor of the WAP, the dedicated non-overlapping segment of the RAM allocated to the one of the plurality of co-processors; and saving, by the main processor of the WAP, the dedicated non-overlapping segment of the RAM allocated to the one of the plurality of co-processors to a fast access memory.

Abstract: Example implementations relate to a variable soft start device. For example, in an implementation, the variable soft start device may set the capacitance of a variable capacitance circuit connected to a soft start pin of the electronic fuse. The variable soft start device may read a power-good signal from the electronic fuse and determine the capacitance to set according to the power-good signal.

Abstract: Examples described herein relate to method and system for managing events received from network devices. A management station may receive events from the network devices. Further, the management station may determine a delay based at least on a rate at which the events are received at the management station. Moreover, the management station may schedule processing of the events based on the delay.

Abstract: Examples include systems and methods for managing a network for example, an enterprise network using a distributed ledger. Some examples include maintaining a distributed ledger by a plurality of NMS units in the network. Use of such distributed ledger may allow communication among NMS units of the plurality of NMS units deployed in the network through the distributed ledger.

Abstract: A method for determining presence of a radar includes receiving a plurality of bursts in a dynamic frequency selection (DFS) channel of an access point, storing the plurality of bursts in a queue, in response to the queue comprising a threshold amount of bursts, determining a timespan of a first burst in the queue to a last burst in the queue, partitioning the timespan into at least a first group and a second group, determining a first number of bursts present in the first group and a second number of bursts present in the second group, in response to a difference between the first number of bursts and the second number of bursts equaling more than one, determining the radar is not present, and in response to the difference between the first number of bursts and the second number of bursts equaling one or less, determining radar is present.

Abstract: Low-level nodes (LLNs) that are communicatively connected to one another each have sensing capability and processing capability. High-level nodes (HLNs) that are communicatively connected to one another and to the LLNs each have processing capability more powerful than the processing capability of each LLN. The LLNs and the HLNs perform processing based on sensing events captured by the LLNs. The processing is performed by the LLNs and the HLNs to minimize data communication among the LLNs and the HLNs, and to provide for software-defined sensing.

Abstract: In one example in accordance with the present disclosure a memristive bit cell is described. The memristive bit cell includes a memristive device switchable between states. The memristive device is to store information. The memristive bit cell also includes a first switch regulating component coupled to the memristive device. The first switch regulating component enforces compliance of the memristive device with a first property threshold when switching between states in a first direction. The first property threshold corresponds to a state of the memristive device. The memristive bit cell also includes a second switch regulating component coupled to the memristive device. The second switch regulating component enforces compliance of the memristive device with a second property threshold when switching between states in a second direction. The second property threshold corresponds to a state of the memristive device.

Abstract: Described herein are methods, network devices, systems, and computer-readable media that provide a technical solution for runtime monitoring and visualization of intent-based network policies in a manner that bridges the gap between high-level insights from runtime and low-level network device configurations. A network topology and a plurality of network configurations can be received in an intent-based network and a number of monitoring spots available within the network topology for runtime monitoring of an intent-based network policy among a plurality of intent-based policies can be determined. A plurality of runtime constraints including one or more of time, resource capacity, and bandwidth demand can then be determined based on the network topology and the plurality of network configurations.

Abstract: Examples include determination of non-TDP zones in a storage area network. Some examples use a member zone list request to request identification of each zone of which a target port of a target device is a member, identify each TDP zone among identified zones of which a target port is a member and determine whether the identified zones include one or more non-TDP zones.

Abstract: Examples include detecting objects and determining a set of features for the objects. Examples include receiving a first image input, generating a number of feature maps from the first image input using a number of convolution filters, generating a first number of fully connected layers directly based on the number of feature maps, and detecting a number of objects in the first image and determining a set of features for each object from the first number of fully connected layers.

Abstract: Example implementations relate to a method and system for cooling a compute node tray including a board, a plurality of first and second devices, a cooling assembly, and a support structure assembly. The cooling assembly includes a supply section, a return section, and an intermediate section coupled to the supply and return sections. The supply section includes a first conduit extending along a perimeter of the board and forming a thermal contact with the first devices. The intermediate section includes a plurality of cold plates and a plurality of second conduits forming the thermal contact with the second devices. The second conduits extends parallel to one another. The return section includes a third conduit extending parallel to a portion of the first conduit. The support structure encompasses the board and forms the thermal contact with a portion of the board, a plurality of third devices, and the cooling assembly.

Abstract: A non-transitory computer readable medium including instructions which, when executed by one or more hardware processors, causes performance of operations. The operations include: obtaining a first pathloss value for a first data transmitted between a first device and a second device; receiving, at a first component of the first device, a second data to be transmitted to the second device; based at least on the first pathloss value: selecting a first subset of the second data for transmission from the first component to a second component of the first device, where the second component is configured for causing transmission of the first subset of the second data to the second device; transmitting, during a first period of time from the first component to the second component, the first subset of the second data.

Abstract: A system and method are provided for instantiating a blockchain in a telecommunications network. The method includes identifying a smart contract having S transactions; encoding the S transactions into a sub-blockchain; selecting K edge gate nodes of the telecommunications network from among N of the edge gate nodes according to an ant colony system algorithm, wherein each of the edge gate nodes operates at an edge of the telecommunications network, and wherein S?K; and allocating the sub-blockchain as one or more virtual network functions among the K edge gate nodes.

Abstract: A system for securely and reliably transferring startup script files over a network may include a unified extensible firmware interface (UEFI) network stack on a client server wherein the client server requests startup script over the network upon startup of the client server using a secure transfer network protocol and receives over the network the startup script. A computing device may comprise a unified extensible firmware interface (UEFI) shell to request a download of startup script, over a network, upon startup of the client server wherein the startup script is staged in a provisioned storage device within the client server to be mounted as local file systems in the client server. The UEFI shell.

Abstract: In some examples, memristive dot product circuit based floating point computations may include ascertaining a matrix and a vector including floating point values, and partitioning the matrix into a plurality of sub-matrices according to a size of a plurality of memristive dot product circuits. For each sub-matrix of the plurality of sub-matrices, the floating point values may be converted to fixed point values. Based on the conversion and selected ones of the plurality of memristive dot product circuits, a dot product operation may be performed with respect to a sub-matrix and the vector. Each ones of the plurality of memristive dot product circuits may include rows including word line voltages corresponding to the floating point values of the vector, conductances corresponding to the floating point values of an associated sub-matrix, and columns that include bitline currents corresponding to dot products of the voltages and conductances.

Abstract: Network device snapshots may capture the overall device state of a network device. Individual snapshots or groups of related snapshots (e.g., from different network devices obtained at a common time period) may be used to diagnose, troubleshoot, or correct anomalies or errors within a computer network. The “device state” of a network device may change over time and therefore obfuscate information desired for trouble shooting (e.g., diagnoses) of network errors (or degraded performance periods). Device state may include logical and physical device characteristics at a given instant in time. Network device snapshots may be stored locally on a network device or may be transmitted to external storage on-demand or periodically to accommodate possible limitations of resources on the network device. Network device snapshots may be “re-loaded” onto devices, for example in a lab or clean-room type environment, for comprehensive analysis. Different types of interfaces into network device snapshots are disclosed.

Abstract: Examples provided herein establish a GTP session between a base station and a gateway. A session establishing request is received in response to an attach request from a wireless terminal to the base station, and a gateway located within an edge site is selected based on the session establishing request. The session establishing request is edited to include information designating the gateway and transmitted to the gateway.

Abstract: Systems and devices for cooling servers are provided. In one aspect, a cooling device includes a first axial pump including a body having an impeller, the first axial pump coupled to a first pump housing, the first axial pump housing coupled to a chassis, a rack, a row of racks, or one or more racks of the row of racks that are housing one or more servers. The cooling device also includes an inlet pipe coupled to an inlet of the first pump housing, the inlet pipe supplying cooling fluid to the first axial pump. The cooling device also includes an outlet pipe having an outlet coupled to the first pump housing, the outlet pipe receiving the cooling fluid from the first axial pump.

Abstract: Example implementations relate to passing a cookie between client devices such that, based on the cookie, connections to the application from the client devices are mapped to a given application instance. A request may be transmitted to an application instance connector to connect to an application. The application may be implemented by multiple application instances. A cookie associated with a given application instance of the multiple application instances may be received from the application instance connector. The cookie may cause connections to the application from client devices having the cookie to map to the given application instance. The cookie may be passed from a first client device to a second client device such that, based on the cookie, connections to the application from the second client device are routed to the given application instance.

Abstract: An apparatus is provided herein. The apparatus includes a sensor module and a control module. The sensor module to receive a measured environmental condition. The control module to use the measured environmental condition to determine a fluid temperature to cool a first set of components and determine an air temperature to cool a second set of components.