Abstract: A system to send a first command to execute an initialization process on a first memory die of a plurality of memory dies of a memory sub-system. The system reads a bit value indicating that the first memory die is executing a low peak current draw phase of the initialization process. In response to reading the bit value, sending a second command to a second memory die of the plurality of memory dies of the memory sub-system, the second command to execute the initialization process on the second memory die.

Abstract: Disclosed are various approaches for automating the detection and identification of anomalous devices in a management service. Device check-ins are received by a management service and housed in a data store. The quantity of device check-ins over various time periods can be analyzed using various approaches to identify anomalous devices.

Abstract: Disclosed are various examples of intelligent provisioning management. An application launch is detected from a client device. An application launch policy is identified. Device parameters are identified and mapped to an application access type according to the application launch policy. The application is accessed according to the application access type.

Abstract: Disclosed are various approaches for automating the detection and identification of anomalous devices in a management service. Device check-ins are received by a management service and housed in a data store. The quantity of device check-ins over various time periods can be analyzed using various approaches to identify anomalous devices.

Abstract: Examples of enterprise management using managed virtual machines for virtualized applications are described. In some examples, a managed virtual machine is executed on a host device and enrolled with a management service. A virtualized application drive is stored in the managed virtual machine. A launch agent executed within the managed virtual machine detects an application access request corresponding to user interaction with a host operating system of the host device. The application volumes launch agent accesses the virtualized application drive and launches the virtualized application corresponding to the application access request.

Abstract: Examples of enterprise management using managed virtual machines (VMs) are described. In one example, a virtual machine base image is validated to comply with a plurality of managed virtual machine packaging rules of a management service. Managed virtual machine configuration parameters are written to a managed virtual machine configuration file of a managed virtual machine. The managed virtual machine includes a management component that implements instructions from a management service. A managed virtual machine package file is generated to include the managed virtual machine configuration file and enterprise-specific enterprise resources identified from the management service based on the enterprise identifier.

Abstract: Examples of enterprise management using managed virtual machines are described. A guest management agent executed within a managed virtual machine receives a command to update a user context configuration of the managed virtual machine from a management service. The command to update the user context configuration of the managed virtual machine is transferred through an inter-process communication (IPC) channel from the guest management agent within the managed virtual machine to a host management agent executed on the host device outside the managed virtual machine. The command to update the user context configuration of the managed virtual machine is implemented using a host desktop hypervisor.

Abstract: Examples of enterprise management using managed virtual machines are described. Virtual machine files can be extracted from a virtual machine package and stored on a host device. The virtual machine files can include a managed virtual machine configuration file, an NVRAM file, and a virtual disk file, as well as other files. A digital signature of the managed virtual machine package can be verified. The digital signature can be based on the managed virtual machine configuration file, the NVRAM file, and a virtual disk file. The managed virtual machine can be added to a virtual machine inventory of the host desktop hypervisor and executed.

Abstract: Examples of enterprise management using managed virtual machines are described. A host user context configuration can be received from a host management agent. The host user context configuration can include one or more policies. A managed virtual machine user context configuration can be received from a guest management agent within a managed virtual machine. A portion of the host user context configuration can be processed using a translation matrix to identify a configuration service provider (CSP)-based profile that is mapped to a policy from the host user context configuration. A command to enforce the CSP-based profile on the managed virtual machine can be transmitted.

Abstract: A memory device embodiment may include an array of non-volatile memory cells including a protected memory region. The protected memory region may include a dedicated sub region established by a host. The memory device embodiment may also include a memory controller configured to wipe the protected memory region or execute other security functions by issuing an authenticated data write command to the dedicated sub region of the protected region. Issuing the authenticated data write command may include signing the command with a key shared with the host that established the sub region.

Abstract: Disclosed are various examples of intelligent provisioning management. An application launch is detected from a client device. An application launch policy is identified. Device parameters are identified and mapped to an application access type according to the application launch policy. The application is accessed according to the application access type.

Abstract: A system to send a first command to execute an initialization process on a first memory die of a plurality of memory dies of a memory sub-system. The system reads a bit value indicating that the first memory die is executing a low peak current draw phase of the initialization process. In response to reading the bit value, sending a second command to a second memory die of the plurality of memory dies of the memory sub-system, the second command to execute the initialization process on the second memory die.

Abstract: Disclosed are various approaches for automating the detection and identification of anomalous devices in a management service. Device check-ins are received by a management service and housed in a data store. The quantity of device check-ins over various time periods can be analyzed using various approaches to identify anomalous devices.

Abstract: A system to send a first command to a first memory die of a plurality of memory dies of a memory sub-system the first command to execute an initialization process. The system reads a first bit value from the first memory die, the first bit value indicating the first memory die is executing a peak current phase of the initialization process. The system reads a second bit value from the first memory die, the second bit value indicating the first memory die is executing a safe phase of the initialization process. In response to reading the second bit value, a second command is sent to a second memory die to execute the initialization process.

Abstract: A system to send a first command to a first memory die of a plurality of memory dies of a memory sub-system the first command to execute an initialization process. The system reads a first bit value from the first memory die, the first bit value indicating the first memory die is executing a peak current phase of the initialization process. The system reads a second bit value from the first memory die, the second bit value indicating the first memory die is executing a safe phase of the initialization process. In response to reading the second bit value, a second command is sent to a second memory die to execute the initialization process.

Abstract: A workload level in an incoming request queue is determined based on one or more operations requested by a host system for execution by a memory sub-system. Based on the workload level in the incoming request queue, a set of memory dies of the memory sub-system to be activated for execution of the one or more operations is identified. Based on a power budget level, a power mode configuration for a memory die of the set of memory dies is determined. One or more parameters of the memory die are configured to establish the power mode configuration.

Abstract: Apparatus and methods are disclosed, including using a memory controller to partition a memory array into a first portion and a second portion, the first portion and second portion having non-overlapping logical block addressing (LBA) ranges. The memory controller assigns a first granularity of a first logical-to-physical (L2P) mapping table entry for the first portion of the memory array designated for a first usage, and a second granularity of a second L2P mapping table entry for the second portion of the memory array designated for a second usage, where the second granularity is not equal to the first granularity. The memory controller stores the first granularity and the second granularity in the memory array, and stores at least a portion of the first L2P mapping table entry and the second L2P mapping table entry in an L2P cache of the memory controller.

Abstract: Apparatus and methods are disclosed, including using a memory controller to monitor at least one parameter related to power level of a host processor of a host device, and dynamically adjusting at least one of a clock frequency and a voltage level of an error-correcting code (ECC) subsystem of the memory controller based on the at least one parameter to control power usage of the host device.

Abstract: Apparatus and methods are disclosed, including determining whether firmware has been successfully loaded and whether the firmware version is valid and operable, and if the firmware has not been successfully loaded or the firmware is not valid and operable, tracking a number of unsuccessful attempts to load the firmware or an elapsed time for unsuccessful attempts to load the firmware, and entering a memory device into a reduced-power state if either the number of unsuccessful attempts or the elapsed time has reached a programmable threshold.

Abstract: Embodiments described herein are related to performing virtual application delivery. In some embodiments, a method includes accessing, at a computing device, a datastore comprising a first virtual disk file mapped to a plurality of virtual disk files separate from the first virtual disk file, wherein each of the plurality of virtual disk files comprises at least one application stored thereon. The method further includes receiving, at the computing device, one or more operations for accessing the first virtual disk file, the one or more operations corresponding to a first application stored on a second virtual disk file of the plurality of virtual disk files. The method further includes redirecting the one or more operations for accessing the first virtual disk file to the second virtual disk file.