Systems and methods are provided for managing dynamically allocated storage and processing units. The systems and methods include operations for determining, a usage pattern having a peak usage portion and a low usage portion; reserving a first collection of units on a dynamic unit allocation system during the peak usage portion; detecting a transition from the peak usage portion to the low usage portion; in response to detecting the transition, instructing the dynamic unit allocation system to reduce the first collection of units to reserve a second collection of units corresponding to a second amount of the low usage portion; selecting asynchronous tasks that consume a set of units greater than the second collection of units; and during a period of time that the dynamic unit allocation system is reducing the first collection of units, causing the asynchronous tasks to be executed by the dynamic allocation system.

In a computer-implemented method for performing alert notification on streaming textual data, streaming textual data is received. A plurality of copies of the streaming textual data is generated, wherein a first copy of the streaming textual data is transmitted to an ingestion service for persistent storage at a data plane and a second copy of the streaming textual data is transmitted to an alert evaluation service for performing alert evaluation on the streaming textual data, such that the ingestion service and the alert evaluation service are performed independently. The streaming textual data is evaluated by the alert evaluation service to detect an alert. Responsive to detecting an alert at the alert evaluation service, a notification of the alert is generated.

An apparatus and method are described, the apparatus comprising processing circuitry to perform data processing operations, microarchitecture circuitry used by the processing circuitry during performance of the data processing operations, and an interface to receive interrupt requests. The processing circuitry is responsive to a received interrupt request to perform an interrupt service routine, and the apparatus comprises prediction circuitry to determine a predicted time of reception of a next interrupt of at least one given type. The apparatus also comprises microarchitecture control circuitry arranged to vary a configuration of the microarchitecture circuitry between a performance based configuration and a responsiveness based configuration in dependence on the predicted time, so as to seek to increase the responsiveness of the apparatus to interrupts as the predicted time is approached.

A priority queue including an order of local data relocation operations to be performed by a plurality of solid-state storage devices is maintained. An indication of a new local data relocation operation is received from a solid-state storage device of the plurality of solid-state storage devices for data stored at the solid-state storage device, the indication including information associated with the data. The new local data relocation operation is inserted into a position in the order of the priority queue based on the information associated with the data.

Certain aspects and feature provide a host hypervisor that includes and advertises a virtual machine function that directs the host hypervisor to execute the next job with real-time priorities. A processing device can execute an application in a nested virtual machine, where the application includes at least one code section that relies on or makes use of real-time prioritized resources of the processing device. The processing device recognizes a virtual machine function call in response to the application determining that a code section using real-time prioritized resources is to be executed. The virtual machine function serves as a command that directs a host hypervisor to execute the next job (the next section of code to be executed) with real-time priorities. The processing device executes the code section in a real-time thread in response to the virtual machine function being called.

There is provided systems and methods for interface data display optimization during critical device operations. A user may utilize a device to perform various device or application functionalities, which may include critical computing tasks at times. These critical processes may include certain GUI data display that the user and/or device requires to be displayed during the critical processes. To prevent the GUI data display from being obscured by other banners, pop-up notifications, or other interface data displays, the device may determine whether the current displayed interface data on the GUI is critical or has a higher priority for display than a new request for data display. This may be based on preferences within the application, where the requested data display may occur on the GUI, current device or application data, and/or information for the requested data display. The device may then block the data display.

This disclosure is directed to systems and methods for determining target allocation parameters for initiating targeted communications in complex computing networks, which may be associated with the allocation of allocatables in execution events over a period of time. The systems and methods may include receiving a desired allocation; determining a first available allocation at a first time; generating allocation information for a second period comprising the first time; determining a second available allocation at a second time; determining a remaining available allocation, based on the allocation information and the second available allocation; and determining one or more target allocation parameters for initiating a targeted communication to a computing device after the second time.

A method includes saving state information in response to receiving a system management interrupt (SMI), the state information including a first value retrieved from a first register and a second value retrieved from a second register. The method further includes determining a function associated with the SMI based on the first value and determining a calling address associated with the SMI based on the second value. A counter corresponding to the function and calling address pair is incremented in response to receiving the SMI. The method concludes by selectively invoking the function based on the value of the counter and based on a predetermined threshold.

A system, method, and computer-readable medium are disclosed for performing a distribution of interrelated event features operation. The distribution of interrelated event features includes: receiving a stream of events, the stream of events comprising a plurality of events; extracting features from the plurality of events; constructing a distribution of the features from the plurality of events; analyzing the distribution of the features from the plurality of events; and, dynamically reweighting the distribution of the features to scale a number of events contained within the distribution.

An apparatus and method are described, the apparatus comprising processing circuitry to perform data processing operations, microarchitecture circuitry used by the processing circuitry during performance of the data processing operations, and an interface to receive interrupt requests. The processing circuitry is responsive to a received interrupt request to perform an interrupt service routine, and the apparatus comprises prediction circuitry to determine a predicted time of reception of a next interrupt of at least one given type. The apparatus also comprises microarchitecture control circuitry arranged to vary a configuration of the microarchitecture circuitry between a performance based configuration and a responsiveness based configuration in dependence on the predicted time, so as to seek to increase the responsiveness of the apparatus to interrupts as the predicted time is approached.