Mathys & Squire

Systems and methods are described for adaptive routing in a network communication. Systems include circuits to determine a latency for each queue of a plurality of queues, wherein the latency of a respective queue is determined based on a depth of the respective queue and a rate of traffic leaving the respective queue, select one queue from the plurality of queues for forwarding a packet based at least in part on the determined latency for each queue, and forward the packet to the selected queue.

A system includes a first circuit board including one or more first computing circuits. The system further includes an interconnect device coupled with the one or more first computing circuits. The interconnect device includes a linear re-driver configured to receive an electrical input signal from at least one of the one or more first computing circuits. The linear re-driver is further configured to boost the electrical input signal to form a boosted electrical signal. The linear re-driver is further configured to output the boosted electrical signal. The interconnect device is configured to provide the boosted electrical signal to one or more second computing circuits of a second circuit board over one or more wired connections. The boost to the electrical input signal compensates for a known loss associated with the one or more wired connections.

An Adaptive Hot-plug System (AHS) includes a system bus including multiple lanes, one or more system-bus slots for plugging-in one or more respective hot-pluggable modules, an AHS controller, and a parent device coupled with the system bus. The AHS controller is to indicate a presence of a hot-pluggable module that is plugged into a system bus slot among the system bus slots. The parent device is to (i) retrieve, from a Non-Volatile Memory (NVM), a configuration of one or more of the lanes that are assigned to the system-bus slot, and (ii) in response to the AHS controller detecting the presence of the hot-pluggable module, apply the retrieved configuration.

An aircraft pylon mounting fitting (10a; 10b) comprising a connecting portion (12a; 12b) and a clevis portion (14a; 14b), the clevis portion (14a; 14b) being integrally formed with the connecting portion (12a; 12b), wherein the connecting portion (12a; 12b) comprises a plurality of holes (13) for attaching the connecting portion (12a; 12b) to an aircraft wing structure, tail structure or fuselage structure, and wherein the clevis portion (14a; 14b) comprises mutually-opposing first and second fork parts (16a, 17a; 16b, 17b) arranged to receive a lug (32a; 32b) of a pylon (30) therebetween, the first fork part (16a; 16b) incorporating a first bore (18a; 18b) and the second fork part (17a; 17b) incorporating a second bore, the first and second bores being configured to receive a pin or bolt for attaching the clevis portion (14a; 14b) to the lug (32a; 32b) of the pylon (30); wherein at least the first bore (18a; 18b) incorporates an eccentric bush (20a; 20b).Also provided is an aircraft wing-to-pylon subassembly comprising: a wing structure; a pylon (30); and a pylon mounting fitting (10a; 10b) as outlined above, wherein the connecting portion (12a; 12b) is attached to the wing structure and the clevis portion (14a; 14b) is attached to a lug (32a; 32b) of the pylon (30) by a pin or bolt passing through the first and second bores and the lug (32a; 32b) of the pylon (30). Aircraft tail-to-pylon and fuselage-to-pylon subassemblies are similarly provided.An aircraft (40) comprising one or more such subassemblies is also provided, as is a method of constructing such a subassembly.

Apparatuses, systems, and techniques to use one or more neural networks to generate one or more responses to the one or more user queries. In at least one embodiment, a processor comprises processing circuitry to use one or more neural networks to generate computer program code to obtain performance information of one or more programs performed by one or more graphics processing units (GPUs) based, at least in part, on one or more user queries indicating the one or more programs and perform the computer program code to generate one or more responses to the one or more user queries.

A system for circulating cooling liquid in a circular path around a central region of an apparatus. An apparatus may receive cooling fluid through a manifold, circulate the cooling fluid in a circular path around a central region, circulate the cooling fluid into the central region, then discharge the cooling fluid.

Apparatuses, systems, and techniques to identify one or more processing units to generate one or more data structures to use a memory accelerator. In at least one embodiment, a processor comprises processing circuitry to identify one or more processing units to generate one or more data structures to use a memory accelerator based, at least in part, on computer program code indicating one or more data transfers and compile the computer program code to cause the one or more processing units to generate the one or more data structures to use the memory accelerator.

Apparatuses, systems, and techniques to calculate efficiency metrics associated with performing operations of a software program a first type of processor compared to a second type of processor. In at least one embodiment efficiency metrics associated with performing operations are used to determine whether the operation is to be executed by the first processor type or by the second processor type.

The invention relates to methods for characterising noise in quantum dynamical processes. The method includes estimating a Lindbladian generator for a noise quantum channel. Eigenvalues of the transfer matrix representing the noisy channel are calculated and a logarithmic branch shift list is applied to explore other branches of the logarithm. An initial guess for the Lindbladian is provided and a fitting procedure is used to improve the best guess estimate of the Lindbladian. The invention also relates to gauge optimisation to characterise State Preparation and Measurement (SPAM) errors.

An apparatus for forming a spiral cut in a cylindrical member is provided, and includes a base that supports a conveyor, an upper housing with a blade thereon, with an edge of the blade extending downwardly toward the conveyor. The conveyor system includes a plurality of spaced sub-assemblies, each formed in the same manner. Each includes three cylinders that are freely rotatable about their longitudinal axis. The first and second cylinders of each sub assembly are disposed to establish an open space between a closest adjacent surface of each of the first and second cylinders, a third of the three cylinders is disposed such that the longitudinal axis of the third cylinder is aligned at a vertical position below the longitudinal axes of the first and second cylinders and the longitudinal axis of the third cylinder is vertically aligned within the open space.