Abstract: A multi-functional sensor assembly includes an electrically non-conductive substrate defining at least a distal region, intermediary region, and proximal region that are each covered with electrically conductive traces. The proximal region is configured to be exposed to a media to be sensed and the distal and intermediary regions are configured to be protected from the media. The electrically conductive traces comprise at least electrical circuits to sense temperature and flow of the media and one or more electrodes to sense one or more of conductivity, oxidation reduction potential (ORP), and acidity (pH) of the media.

Abstract: A system includes a first processor configured to analyze packets received over a communication protocol system and determine one or more congestion indicators from the analysis of the data packets, the one or more congestion indicators being indicative of network congestion for data packets transmitted over a reliable transport protocol layer of the communication protocol system. The system also includes a rate update engine separate from the packet datapath and configured to operate a second processor to receive the determined one or more congestion indicators, determine one or more congestion control parameters for controlling transmission of data packets based on the received one or more congestion indicators, and output a congestion control result based on the determined one or more congestion control parameters.

Abstract: A system includes a first processor configured to analyze packets received over a communication protocol system and determine one or more congestion indicators from the analysis of the data packets, the one or more congestion indicators being indicative of network congestion for data packets transmitted over a reliable transport protocol layer of the communication protocol system. The system also includes a rate update engine separate from the packet datapath and configured to operate a second processor to receive the determined one or more congestion indicators, determine one or more congestion control parameters for controlling transmission of data packets based on the received one or more congestion indicators, and output a congestion control result based on the determined one or more congestion control parameters.

Abstract: An automated system for lipid exchange-mass spectrometry, e.g., measuring affinity of a membrane protein for lipids. The automated systems herein can measure the specificity of membrane protein-lipid interactions, detect remodeling of the membrane environment, and determine optimal lipid composition for membrane proteins.

Abstract: A system includes a first processor configured to analyze packets received over a communication protocol system and determine one or more congestion indicators from the analysis of the data packets, the one or more congestion indicators being indicative of network congestion for data packets transmitted over a reliable transport protocol layer of the communication protocol system. The system also includes a rate update engine separate from the packet datapath and configured to operate a second processor to receive the determined one or more congestion indicators, determine one or more congestion control parameters for controlling transmission of data packets based on the received one or more congestion indicators, and output a congestion control result based on the determined one or more congestion control parameters.

Abstract: A computing system dedicates one or more processing units, such as cores, for the purposes of packet processing software, wherein other processing units simultaneously run application software. In some examples, the system uses dynamic load information to dynamically increase and decrease the number of processing units dedicated to packet processing. The system may further include a mechanism for establishing shared-memory regions for interacting with other applications' users. The shared memory mechanisms provide an abstraction of per-application “command” and “completion queues”. The system may poll per-application command queues for detecting the arrival of new requests. The mechanism also provides detection of application termination, as well as an ability for an application to expose portions of its address space for the reception and transmission of data.

Abstract: Systems and methods for updating an application without a restart are provided. A processor can start a second application instance while a first application instance is still executing. The first application instance can transfer a first set of state information to the second application instance. The second application instance can declare its readiness for activation in response to completion of the transfer. The first application instance can deactivate in response to the declaration. Deactivation includes transferring a second set of state information from the first application instance to the second application instance and releasing single-access resources. The second application instance can activate. Activation includes receiving the second set of state information, and accessing the single-access resources. The second application instance can declare that activation is complete in response to completion of the activation. The first application instance can terminate in response to the declaration.

Abstract: Systems and methods for updating an application without a restart are provided. A processor can start a second application instance while a first application instance is still executing. The first application instance can transfer a first set of state information to the second application instance. The second application instance can declare its readiness for activation in response to completion of the transfer. The first application instance can deactivate in response to the declaration. Deactivation includes transferring a second set of state information from the first application instance to the second application instance and releasing single-access resources. The second application instance can activate. Activation includes receiving the second set of state information, and accessing the single-access resources. The second application instance can declare that activation is complete in response to completion of the activation. The first application instance can terminate in response to the declaration.

Abstract: A computing system dedicates one or more processing units, such as cores, for the purposes of packet processing software, wherein other processing units simultaneously run application software. In some examples, the system uses dynamic load information to dynamically increase and decrease the number of processing units dedicated to packet processing. The system may further include a mechanism for establishing shared-memory regions for interacting with other applications' users. The shared memory mechanisms provide an abstraction of per-application “command” and “completion queues”. The system may poll per-application command queues for detecting the arrival of new requests. The mechanism also provides detection of application termination, as well as an ability for an application to expose portions of its address space for the reception and transmission of data.

Abstract: Probabilistic arbitration is combined with distance-based weights to achieve equality of service in interconnection networks, such as those used with chip multiprocessors. This arbitration desirably used incorporates nonlinear weights that are assigned to requests. The nonlinear weights incorporate different arbitration weight metrics, namely fixed weight, constantly increasing weight, and variably increasing weight. Probabilistic arbitration for an on-chip router avoids the need for additional buffers or virtual channels, creating a simple, low-cost mechanism for achieving equality of service. The nonlinearly weighted probabilistic arbitration includes additional benefits such as providing quality-of-service features and fairness in terms of both throughput and latency that approaches the global fairness achieved with age-base arbitration. This provides a more stable network by achieving high sustained throughput beyond saturation.

Abstract: Systems and methods are provided for congestion notification in mixed-fabric InfiniBand networks. In one aspect, a system and apparatus is provided wherein a receiving endpoint receives, from a sending endpoint, InfiniBand messages over a mixed-fabric network. The mixed-fabric network may include an InfiniBand transport layer and a non-InfiniBand messaging fabric. The non-InfiniBand massaging fabric may be any type of non-InfiniBand data-link-layer and network-layer network (e.g. Ethernet, IP). For example, the receiving endpoint may receive a non-InfiniBand protocol data unit (PDU) that contains at least a part of a first InfiniBand PDU as payload. The receiving endpoint may extract signaling from the received non-InfiniBand PDU that indicates whether congestion has been detected in the non-InfiniBand layers of the mixed-fabric network.

Abstract: Energy proportional solutions are provided for computer networks such as datacenters. Congestion sensing heuristics are used to adaptively route traffic across links. Traffic intensity is sensed and links are dynamically activated as they are needed. As the offered load is decreased, the lower channel utilization is sensed and the link speed is reduced to save power. Flattened butterfly topologies can be used in a further power saving approach. Switch mechanisms are exploit the topology's capabilities by reconfiguring link speeds on-the-fly to match bandwidth and power with the traffic demand. For instance, the system may estimate the future bandwidth needs of each link and reconfigure its data rate to meet those requirements while consuming less power. In one configuration, a mechanism is provided where the switch tracks the utilization of each of its links over an epoch, and then makes an adjustment at the end of the epoch.

Abstract: Adaptive packet routing is employed in a multiprocessor network configuration such as an InfiniBand switch architecture. Packets are routed from host to host through one or more switches. Upon receipt of a packet at a switch, the packet header is inspected to determine the destination host. A destination field in the header is used to index into a lookup table or other memory, which produces a route type and an output port grouping. Depending on the route type, one or more primary and secondary output port candidates are identified. An output port arbitration module chooses an output port from which to send a given packet, using congestion sensing inputs for the specified ports. A heuristic may include the congestion information that is provided to the arbitration module. Switching may be performed among minimal or non-minimal routes along each hop in the path, depending upon link and packet injection information.

Abstract: Probabilistic arbitration is combined with distance-based weights to achieve equality of service in interconnection networks, such as those used with chip multiprocessors. This arbitration desirably used incorporates nonlinear weights that are assigned to requests. The nonlinear weights incorporate different arbitration weight metrics, namely fixed weight, constantly increasing weight, and variably increasing weight. Probabilistic arbitration for an on-chip router avoids the need for additional buffers or virtual channels, creating a simple, low-cost mechanism for achieving equality of service. The nonlinearly weighted probabilistic arbitration includes additional benefits such as providing quality-of-service features and fairness in terms of both throughput and latency that approaches the global fairness achieved with age-base arbitration. This provides a more stable network by achieving high sustained throughput beyond saturation.

Abstract: Energy proportional solutions are provided for computer networks such as datacenters. Congestion sensing heuristics are used to adaptively route traffic across links. Traffic intensity is sensed and links are dynamically activated as they are needed. As the offered load is decreased, the lower channel utilization is sensed and the link speed is reduced to save power. Flattened butterfly topologies can be used in a further power saving approach. Switch mechanisms are exploit the topology's capabilities by reconfiguring link speeds on-the-fly to match bandwidth and power with the traffic demand. For instance, the system may estimate the future bandwidth needs of each link and reconfigure its data rate to meet those requirements while consuming less power. In one configuration, a mechanism is provided where the switch tracks the utilization of each of its links over an epoch, and then makes an adjustment at the end of the epoch.

Abstract: Adaptive packet routing is employed in a multiprocessor network configuration such as an InfiniBand switch architecture. Packets are routed from host to host through one or more switches. Upon receipt of a packet at a switch, the packet header is inspected to determine the destination host. A destination field in the header is used to index into a lookup table or other memory, which produces a route type and an output port grouping. Depending on the route type, one or more primary and secondary output port candidates are identified. An output port arbitration module chooses an output port from which to send a given packet, using congestion sensing inputs for the specified ports. A heuristic may include the congestion information that is provided to the arbitration module. Switching may be performed among minimal or non-minimal routes along each hop in the path, depending upon link and packet injection information.