Abstract: A flexible cold plate assembly may include a flexible cold plate which allows for conformance or flexing to support warping associated with an underlying computing component. The conformance or flexing may be based, at least in part, on one or more of a thin base plate, on heat removal surface extensions of the flexible cold plate assembly having multiple cross-cuts therein, or a distribution seal having conformance or flexing properties. The cross-cuts may be perpendicular to a direction of flow of a fluid through the heat removal surface extensions to provide the conformance or flexing in the flexible cold plate.

Abstract: A deformation assembly, in at least one aspect, may support a cold plate assembly or may be part of the cold plate assembly which includes a cold plate. The deformation assembly may allow a controlled deformation to the cold plate. The controlled deformation may deform the cold plate to a predetermined curvature of a computing component.

Abstract: Systems, devices, and methods for disaggregating networking components are provided. An example datacenter rack includes a first networking chassis including a first disaggregated server device supported by the first networking chassis. The first disaggregated server device includes a first central processing unit (CPU) and a first graphics processing unit (GPU) coupled with the first CPU configured to perform computing operations associated with the first networking chassis. The example datacenter rack also includes a second networking chassis including a second disaggregated server device supported by the second networking chassis. The second disaggregated server device includes a second CPU and a second GPU coupled with the second CPU configured to perform computing operations associated with the first networking chassis.

Abstract: Systems, devices, and methods for disaggregating networking components are provided. An example networking system includes a first network domain including a first networking chassis. The first networking chassis includes a first disaggregated server device supported by the first networking chassis including a first central processing unit (CPU); and a first graphics processing unit (GPU) coupled with the first CPU. The first CPU and the first GPU are configured to perform one or more computing operations associated with the first networking chassis. The networking system further includes a second network domain comprising a plurality of rack switches operably coupled with at least the first networking chassis.

Abstract: Systems, devices, and methods for disaggregating networking components are provided. An example networking chassis includes a first disaggregated server device supported by the networking chassis that includes a first central processing unit (CPU) and a first graphics processing unit (GPU) coupled with the first CPU. The networking chassis further includes a first insertable switch module communicably coupled with the first disaggregated server device that includes first switching chipsets and a first fabric management controller coupled with the first switching chipsets. The first insertable switch module at least partially controls data transmission associated with the first disaggregated server device.

Abstract: Systems, devices, and methods for disaggregating networking components are provided. An example cable cartridge for network connections includes a housing defining a first portion configured to be coupled with at least a first disaggregated server device supported by a networking chassis. The first disaggregated server device includes a first central processing unit (CPU) and a first graphics processing unit (GPU) coupled with the first CPU. The first CPU and the first GPU are configured to perform one or more computing operations associated with the networking chassis. The housing defines a second portion configured to be coupled with at least a first insertable switch module supported by the networking chassis. The cable cartridge is configured to operably couple the first disaggregated server device and the first insertable switch module.

Abstract: Systems and methods are provided herein to improve control of automatic driver assist systems in a vehicle and a vehicle comprising said systems, for example, by enabling the automatic driver assist systems to be selectively deactivated or activated under certain conditions.

Abstract: A method includes receiving, using a processing device, a first condition associated with an operation at a data center, where the operation at the data center pertains to a first location at the data center, the first location corresponding to a first parameter value. The method further includes providing the first condition as an input to a machine learning model. The method also includes performing one or more reinforcement learning techniques using the machine learning model to cause the machine learning model to output an indication of a final location associated with the operation, where the final location corresponds to a final parameter value that is closer to a target than the first parameter value corresponding to the first location at the data center.

Abstract: A vehicle interface control unit for a vehicle comprises an accessories module to detect an accessory fitted to the vehicle an input module to receive one or more input signals from a vehicle electronic control unit, ECU; and a display control module to determine a display setting of an interface element for control of the detected accessory based on the received input signals, and control a display unit to show the interface element according to the determination.

Abstract: A method includes receiving, using a processing device, a first condition associated with an operation at a data center, where the operation at the data center pertains to a first location at the data center, the first location corresponding to a first parameter value. The method further includes providing the first condition as an input to a machine learning model. The method also includes performing one or more reinforcement learning techniques using the machine learning model to cause the machine learning model to output an indication of a final location associated with the operation, where the final location corresponds to a final parameter value that is closer to a target than the first parameter value corresponding to the first location at the data center.

Abstract: A vehicle interface control unit for a vehicle comprises an accessories module to detect an accessory fitted to the vehicle an input module to receive one or more input signals from a vehicle electronic control unit, ECU; and a display control module to determine a display setting of an interface element for control of the detected accessory based on the received input signals, and control a display unit to show the interface element according to the determination.

Abstract: Systems and methods are provided herein to improve control of automatic driver assist systems in a vehicle and a vehicle comprising said systems, for example, by enabling the automatic driver assist systems to be selectively deactivated or activated under certain conditions.

Abstract: Systems are provided for a crankcase ventilation system. In one example, a crankcase ventilation (CCV) system for an engine configured to transmit crankcase gases into a clean side air duct, the clean side air duct comprising a sensor and a crankcase ventilation spigot, wherein the crankcase ventilation spigot is configured to be disposed downstream of the sensor, the crankcase ventilation spigot having an outlet configured to direct crankcase gases emerging from the crankcase ventilation spigot away from the sensor.

Abstract: Systems are provided for a crankcase ventilation system. In one example, a crankcase ventilation (CCV) system for an engine configured to transmit crankcase gases into a clean side air duct, the clean side air duct comprising a sensor and a crankcase ventilation spigot, wherein the crankcase ventilation spigot is configured to be disposed downstream of the sensor, the crankcase ventilation spigot having an outlet configured to direct crankcase gases emerging from the crankcase ventilation spigot away from the sensor.

Abstract: Systems are provided for a crankcase ventilation system. In one example, a crankcase ventilation (CCV) system for an engine configured to transmit crankcase gases into a clean side air duct, the clean side air duct comprising a sensor and a crankcase ventilation spigot, wherein the crankcase ventilation spigot is configured to be disposed downstream of the sensor, the crankcase ventilation spigot having an outlet configured to direct crankcase gases emerging from the crankcase ventilation spigot away from the sensor.

Abstract: Systems are provided for a crankcase ventilation duct. In one example, the crankcase ventilation duct is integrally formed with a compressor housing wherein surfaces of the compressor housing shape a passage of the crankcase ventilation duct.

Abstract: In one embodiment, the present invention includes a processor having multiple domains including at least a core domain and a non-core domain that is transparent to an operating system (OS). The non-core domain can be controlled by a driver. In turn, the processor further includes a memory interconnect to interconnect the core domain and the non-core domain to a memory coupled to the processor. Still further, a power controller, which may be within the processor, can control a frequency of the memory interconnect based on memory boundedness of a workload being executed on the non-core domain. Other embodiments are described and claimed.

Abstract: The disclosure generally relates to dynamic clock and voltage scaling (DCVS) based on program phase. For example, during each program phase, a first hardware counter may count each cycle where a dispatch stall occurs and an oldest instruction in a load queue is a last-level cache miss, a second hardware counter may count total cycles, and a third hardware counter may count committed instructions. Accordingly, a software/firmware mechanism may read the various hardware counters once the committed instruction counter reaches a threshold value and divide a value of the first hardware counter by a value of the second hardware counter to measure a stall fraction during a current program execution phase. The measured stall fraction can then be used to predict a stall fraction in a next program execution phase such that optimal voltage and frequency settings can be applied in the next phase based on the predicted stall fraction.

Abstract: In one embodiment, the present invention includes a processor having multiple domains including at least a core domain and a non-core domain that is transparent to an operating system (OS). The non-core domain can be controlled by a driver. In turn, the processor further includes a memory interconnect to interconnect the core domain and the non-core domain to a memory coupled to the processor. Still further, a power controller, which may be within the processor, can control a frequency of the memory interconnect based on memory boundedness of a workload being executed on the non-core domain. Other embodiments are described and claimed.

Abstract: In one embodiment, the present invention includes a processor having multiple domains including at least a core domain and a non-core domain that is transparent to an operating system (OS). The non-core domain can be controlled by a driver. In turn, the processor further includes a memory interconnect to interconnect the core domain and the non-core domain to a memory coupled to the processor. Still further, a power controller, which may be within the processor, can control a frequency of the memory interconnect based on memory boundedness of a workload being executed on the non-core domain. Other embodiments are described and claimed.