For DS4/DS5 to properly function on your Windows 10/11 PC you are required to install necessary first and third party drivers. Some of which, of course, are optional but will improve DS4windows capabilities. Here we will list and give a description of every driver needed to allow your DualShock 4 and DualSense 5 to work. Launching the DS4 app will also ask to install the drivers.
DS4Windows uses the FakerInput driver to expose system-wide virtual keyboard, relative mouse and absolute mouse. Allows Keyboard + Mouses events/commands to be usable in some situations where the usual way DS4Windows sends those commands (via SendInput) fails. Examples of those situations are elevated processes and games, UAC prompts and anti-cheat systems that block SentInput events. Use of FakerInput is necessary to allow DS4Windows to work with some games with anti-cheat protection like valorant.
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HidGuardian is a driver that can hide controllers from the system and allow only chosen processes to detect them. It was previously used by DS4Windows to solve the double input issue, but was made obsolete by the release of its successor, HidHide, a similar driver that works better and is easier to use.
DS4Windows removed support for HidGuardian in version 3.0.8 in favor of HidHide. As such, users who used and still have HidGuardian installed can be in a state where their controllers are hidden and undetectable to Windows and DS4Windows.
Windows 10 has a native driver system embedded in the OS. By keeping your device up-to-date, you will ensure that you are always running the latest software or hardware drivers, as Microsoft frequently fixes known issues. View instructions to check for the latest updates for your Windows 10-based device.
The CP210x USB to UART Bridge Virtual COM Port (VCP) drivers are required for device operation as a Virtual COM Port to facilitate host communication with CP210x products. These devices can also interface to a host using the direct access driver.
The CP210x Manufacturing DLL and Runtime DLL have been updated and must be used with v 6.0 and later of the CP210x Windows VCP Driver. Application Note Software downloads affected are AN144SW.zip, AN205SW.zip and AN223SW.zip. If you are using a 5.x driver and need support you can download Legacy OS Software.
My first question is, do I still need to install the HP version of this driver? When I attempt to do so, I get the following messages, but the driver looks to install, so not sure if this is just a cosmetic error. (I uninstalled it before rebooting just in case)
Gen 10 ProLiant Smart Array SR controllers use the 'smartpqi' driver. 'hpsa' was used in previous generation servers. The 'smartpqi' driver is in the kernel tree so it is not necassary to install the HPE version of the driver. Do you have the sg3_utils package installed?
Amazon Elastic File System (Amazon EFS) provides serverless, fully elastic file storage so that you can share file data without provisioning or managing storage capacity and performance. The Amazon EFS Container Storage Interface (CSI) driver provides a CSI interface that allows Kubernetes clusters running on AWS to manage the lifecycle of Amazon EFS file systems. This topic shows you how to deploy the Amazon EFS CSI driver to your Amazon EKS cluster.
Run the following commands to create the IAM role and Kubernetes service account. The commands also attach the policy to the role, annotate the Kubernetes service accounts (efs-csi-controller-sa and efs-csi-node-sa) with the IAM role ARN, and add the Kubernetes service account name to the trust policy for the IAM role. Replace my-cluster with your cluster name and AmazonEKS_EFS_CSI_DriverRole with the name for your role.
Skip this step if you're installing the driver as an Amazon EKS add-on. For self-managed installations of the driver, create Kubernetes service accounts that are annotated with the ARN of the IAM role that you created.
Create the Kubernetes service account on your cluster. The Kubernetes service accounts (efs-csi-controller-sa and efs-csi-node-sa) are annotated with the IAM role that you created named AmazonEKS_EFS_CSI_DriverRole.
Copy the following contents to a file named aws-efs-csi-driver-trust-policy.json. Replace 111122223333 with your account ID. Replace EXAMPLED539D4633E53DE1B71EXAMPLE and region-code with the values returned in the previous step. If your cluster is in the AWS GovCloud (US-East) or AWS GovCloud (US-West) AWS Regions, then replace arn:aws: with arn:aws-us-gov:.
We recommend that you install the Amazon EFS CSI driver through the Amazon EKS add-on. To add an Amazon EKS add-on to your cluster, see Creating an add-on. For more information about add-ons, see Amazon EKS add-ons. If you're unable to use the Amazon EKS add-on, we encourage you to submit an issue about why you can't to the Containers roadmap GitHub repository.
hmm, your problem is very similar with me.
Do you have Freesync or Adaptive-Sync monitor?
Try to disable Freesync or Adaptive-Sync from AMD driver (and from Winows Graphics VRR settings), let me know if it can resolve your BSOD problem.
Starting with Windows 8, the GPIO framework extension (GpioClx) simplifies the task of writing a driver for a GPIO controller device. Additionally, GpioClx provides driver support for peripheral devices that connect to GPIO pins. GpioClx, which is a system-supplied extension to the kernel-mode driver framework (KMDF), performs processing tasks that are common to members of the GPIO device class.
Hardware vendors supply drivers to control their GPIO controllers. A GPIO controller driver is a KMDF driver that manages all hardware-specific operations for a GPIO controller. The GPIO controller driver cooperates with GpioClx to handle I/O requests for groups of GPIO pins that are configured as data inputs and data outputs. In addition, this driver cooperates with GpioClx to handle interrupt requests from GPIO pins that are configured as interrupt inputs.
A GPIO controller device has some number of GPIO pins. These pins can be physically connected to peripheral devices. GPIO pins can be configured as data inputs, data outputs, or interrupt request inputs. Typically, a GPIO pin is dedicated to a peripheral device, and not shared by two or more devices. Connections between GPIO pins and peripheral devices are fixed and cannot be changed by the user (for example, by removing a peripheral device and replacing it with another device). Thus, the assignment of GPIO pins to peripheral devices can be described in the platform firmware.
The GPIO controller driver and GpioClx communicate with each other through the GpioClx device-driver interface (DDI). The GPIO controller driver calls driver support methods that are implemented by GpioClx. GpioClx calls event callback functions that are implemented by the GPIO controller driver.
GpioClx handles I/O requests from the drivers for peripheral devices that physically connect to GPIO pins. GpioClx translates these I/O requests into simple hardware operations, which it performs by calling the event callback functions that are implemented by the GPIO controller driver. For example, to read data from or write data to a set of GPIO pins, GpioClx calls event callback functions such as CLIENT_ReadGpioPins and CLIENT_WriteGpioPins. GpioClx manages the I/O queues for the GPIO controller, and thereby relieves the GPIO controller driver of this task.
In addition, GpioClx handles primary interrupts from the GPIO controller device and maps these interrupts to secondary interrupts, which are handled by peripheral device drivers. Primary interrupts are interrupts that are generated by hardware devices. Secondary interrupts are generated by the operating system in response to certain primary interrupts. Both primary and secondary interrupts are identified by global system interrupts (GSIs). The ACPI firmware for the hardware platform assigns GSIs to primary interrupts, and, at run time, the operating system assigns GSIs to secondary interrupts.
GpioClx implements an ISR that handles the hardware-generated, primary interrupts from the GPIO controller device. When a peripheral device asserts an interrupt on a GPIO pin, and interrupts on this pin are enabled and unmasked, the GPIO controller interrupts the processor. In response, the kernel trap handler schedules the GpioClx ISR to run. To identify the GPIO pin that caused the interrupt, the GpioClx ISR calls the CLIENT_QueryActiveInterrupts event callback function, which is implemented by the GPIO controller driver. The GpioClx ISR then looks up the GSI that is assigned to this pin and passes this GSI to the hardware abstraction layer (HAL). The HAL generates a secondary interrupt by calling the ISR that is registered for this GSI. This ISR belongs to the driver for the peripheral device that originally asserted the interrupt.
The KMDF driver for a peripheral device receives its assigned hardware resources during an EvtDevicePrepareHardware callback. These resources might include GPIO pins that are configured as data outputs, data inputs, or interrupt request inputs.
A GPIO I/O resource is a new Windows resource type in Windows 8. This resource consists of a set of one or more GPIO pins that can be used either as data inputs or data outputs. If a peripheral device driver opens a GPIO I/O resource for reads, the driver uses all of the pins in the resource as data inputs. If a driver opens a GPIO I/O resource for writes, the driver uses all of the pins in the resource as data outputs. For code examples that show how a peripheral device driver opens a logical connection to a set of GPIO I/O pins, see the following topics: be457b7860
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