Code 28 Driver Download For Windows 10 64 Bit
Cloridan Drakh
This article covers error codes that are generated by Device Manager in Windows. You probably reached this article because Device Manager or another tool like DXDiag reported an error code, and you are not sure how to resolve it. In this article, we will help you find your error code and suggest what you might try to correct the error.
If the above steps didn't help you resolve your problem or were not available, locate your error code in the following table, and follow the recommended resolutions for that error code. You may also click the specific error code to get more detail information.
Note This article doesn't contain all error codes generated by Device Manager. If you are getting an error code that isn't listed here, you can contact the hardware device vendor's technical support or Microsoft Support for help.
Right-click the device that has the problem, and then click Properties. This opens the device's Properties dialog box. You can see the error code in the Device status area of this dialog box.
In the device's Properties dialog box, click the Driver tab, and then click Update Driver to start the Hardware Update Wizard. Follow the instructions to update the driver. If updating the driver does not work, see your hardware documentation for more information.
Note You may be prompted to provide the path of the driver. Windows may have the driver built-in, or may still have the driver files installed from the last time that you set up the device. If you are asked for the driver and you do not have it, you can try to download the latest driver from the hardware vendor's website.
Note You may be prompted to provide the path of the driver. Windows may have the driver built-in, or may still have the driver files installed from the last time that you set up the device. However, sometimes, it will open the New Hardware Wizard which may ask for the driver. If you are asked for the driver and you do not have it, you can try to download the latest driver from the hardware vendor's website.
This error means that Windows is in the process of removing the device. However, the device has not yet been completely removed. This error code is temporary, and exists only during the attempts to query and then remove a device.
The device is installed incorrectly. The problem could be a hardware failure, or a new driver might be needed. Devices stay in this state if they have been prepared for removal. After you remove the device, this error disappears.
A duplicate device was detected. This error occurs when a bus driver incorrectly creates two identically named sub-processes (known as a bus driver error), or when a device with a serial number is discovered in a new location before it is removed from the old location.
No resolution is necessary. This error code is only used to indicate the disconnected status of the device and does not require you to resolve it. The error code resolves automatically when you connect the associated device to the computer.
No resolution is necessary. The hardware device should work correctly next time that you start the computer. This error code is only set when Driver Verifier is enabled and all applications have already been shut down.
Windows cannot apply all of the properties for this device. Device properties may include information that describes the device's capabilities and settings (such as security settings for example). To fix this problem, you can try reinstalling this device. However,we recommend that you contact the hardware manufacturer for a new driver. (Code50)
Windows cannot verify the digital signature for the drivers required for this device. A recent hardware or software change might have installed a file that is signed incorrectly or damaged, or that might be malicious software from an unknown source. (Code 52)
This is an intermittent problem code assigned while an ACPI reset method is being executed. If the device never restarts due to a failure, it will be stuck in this state and the system should be rebooted.
This section contains descriptions of common bug check codes that are displayed on the blue bug check screen. This section also describes how you can use the !analyze extension in the Windows Debugger to display information about a bug check code.
If a specific bug check code does not appear in this topic, use the !analyze extension in the Windows Debugger (WinDbg) with the following syntax (in kernel mode), replacing with a bug check code:
Provide the stop code parameters to the !analyze command to display any available parameter information. For example, to display information on Bug Check 0x9F: DRIVER_POWER_STATE_FAILURE, with a parameter 1 value of 0x3, use !analyze -show 0x9F 0x3 as shown here.
When a bug check occurs, a dump file may be available that contains additional information about the contents of memory when the stop code occurred. To understand the contents of memory during a failure, knowledge of processor memory registers and assembly is required.
Live Dump stop codes to not reset the OS, but allow for the capture of memory information for abnormal situations where the operating system can continue. For information about live dumps, see Bug Check Code Reference - Live Dump.
Code analysis and verification tools can help improve the stability and reliability of your driver by systematically analyzing the source code. The code analysis and verification tools can detect errors that are missed by the compiler and by conventional runtime testing. Additionally they can determine whether the driver correctly interacts with the Windows operating system kernel. Using Microsoft Visual Studio and the Windows Driver Kit (WDK), you can configure the code analysis and verification tools to run as part of the build process, or you can schedule the tools to analyze your driver at a predetermined time.
The Windows 8 release of the WDK provides enhancements to the C/C++ Code Analysis tool included with Visual Studio. Specifically, the WDK provides a specialized driver module that is designed to detect errors in kernel-mode driver code. This driver module is integrated into the C/C++ Code Analysis tool.
Note In previous versions of the WDK, the driver-specific module for code analysis was part of a standalone tool called PREfast for Drivers (PFD). PREfast for Drivers was also integrated into the WDK Build environment, as part of Microsoft Automated Code Review (OACR).
Static Driver Verifier (SDV) is a static verification tool that systematically analyzes the source code of Windows kernel-mode drivers. SDV determines whether the driver correctly interacts with the Windows operating system kernel. SDV can be launched from the Driver menu in Visual Studio or from the Visual Studio Command Prompt window.
Visual Studio creates one project and a solution. You can see them in the Solution Explorer window. (If the Solution Explorer window isn't visible, choose Solution Explorer from the View menu.) The solution has a driver project named KmdfHelloWorld.
In the Solution Explorer window, select and hold (or right-select) the KmdfHelloWorld project and choose Configuration Manager. Choose a configuration and platform for the driver project. For example, choose Debug and x64.
Now that you've created your empty Hello World project and added the Driver.c source file, you'll write the most basic code necessary for the driver to run by implementing two basic event callback functions.
DriverEntry is the entry point for all drivers, like Main() is for many user mode applications. The job of DriverEntry is to initialize driver-wide structures and resources. In this example, you printed "Hello World" for DriverEntry, configured the driver object to register your EvtDeviceAdd callback's entry point, then created the driver object and returned.
The driver object acts as the parent object for all other framework objects you might create in your driver, which include device objects, I/O queues, timers, spinlocks, and more. For more information about framework objects, see Introduction to Framework Objects.
EvtDeviceAdd is invoked by the system when it detects that your device has arrived. Its job is to initialize structures and resources for that device. In this example, you simply printed out a "Hello World" message for EvtDeviceAdd, created the device object, and returned. In other drivers you write, you might create I/O queues for your hardware, set up a device context storage space for device-specific information, or perform other tasks needed to prepare your device.
For the device add callback, notice how you named it with your driver's name as a prefix (KmdfHelloWorldEvtDeviceAdd). Generally, we recommend naming your driver's functions in this way to differentiate them from other drivers' functions. DriverEntry is the only one you should name exactly that.
This example illustrates a fundamental concept of drivers: they're a "collection of callbacks" that, once initialized, sit and wait for the system to call them when it needs something. A system call could be a new device arrival event, an I/O request from a user mode application, a system power shutdown event, a request from another driver, or a surprise removal event when a user unplugs the device unexpectedly. Fortunately, to say "Hello World," you only needed to worry about driver and device creation.
In the Solution Explorer window, select and hold (or right-select) Solution 'KmdfHelloWorld' (1 project) and choose Configuration Manager. Choose a configuration and platform for the driver project. For this exercise, we choose Debug and x64.
To build your driver, choose Build Solution from the Build menu. Visual Studio shows the build progress in the Output window. (If the Output window isn't visible, choose Output from the View menu.) When you've verified that the solution built successfully, you can close Visual Studio.
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