![]() ![]() The only thing that's different on the Windows machine where the IDE is not working ist that the Keil MDK is installed with its "own" USB driver instance. I'm sure the issue is with the PC-system side or the IDE installation and nothing with the board's hardware but I'm running out of ideas. The firmware of the ST-LINK is up to date, the firmware-updater of both, the CubeIDE and the Utility Software can connect to the device and setting it into update mode. ![]() Still the same result: The Board works well with the ST-LINK Utility software but it doesn't with the Cube IDE, nor after reinstallation. I have also tried to reinstall the drivers manually but without any success. I have checked the Windows device manager, too: The ST-LINK debug probe instantly appears when I plug in the cable and runs with the dedicated ST driver as required. With the ST-LINK Utility software I can connect the target device and flash binaries without any problem. I've already read the other tasks about this problem, so here comes what differs in my case: So the hardware and jumper setup is correct. When I run the same project with exact the same settings on another Windows 10 machine, everything works fine and the onboard debugger conntects without any problem. No ST-LINK detected! Please connect ST-LINK and restart the debug session. When I know try to run or debug a simple example project the ST-LINK firmware verification opens instantly with the message: I have first installed the latest version of the IDE on an Windows 10 machine with the ST-LINK USB drivers that are required. and other countries.I try to connect a NUCLEO-F429ZI board with STM32CubeIDE. Availability as standalone software running on Windows ®, Linux ® and macOS ® (macOS ® is a trademark of Apple Inc.Integration of STM32Cube Expansion packages into the project.Development of enhanced STM32Cube Expansion Packages thanks to STM32PackCreator.Generation of a partial Linux ® Device Tree for Arm ® Cortex ®-A core (STM32 microprocessors).Generation of initialization C code project, compliant with IAR Embedded Workbench ®, MDK-ARM and STM32CubeIDE (GCC compilers) for Arm ® Cortex ®-M core.Power sequence with estimated consumption results.Clock tree with dynamic validation of the configuration.Peripherals and middleware functional modes with dynamic validation of parameter constraints for Arm ® Cortex ®-M core.Pinout with automatic conflict resolution.Rich easy-to-use graphical user interface allowing the configuration of:.Intuitive STM32 microcontroller and microprocessor selection.STM32CubeMX is delivered within STM32Cube. This step provides the initialization C code for the Arm ® Cortex ®-M, ready to be used within several development environments, or a partial Linux ® Device Tree for the Arm ® Cortex ®-A. Moreover, a unique utility in STM32CubeMX delivery, STM32PackCreator, helps developers to build their own enhanced STM32Cube Expansion Packages.Įventually the user launches the generation that matches the selected configuration choices. STMicrolectronics or STMicrolectronics' partner packages can be downloaded directly from a dedicated package manager available within STM32CubeMX, while the other packages can be installed from a local drive. The default software and middleware stacks can be extended thanks to enhanced STM32Cube Expansion Packages. ![]() For Cortex ®-M core, the configuration includes additional steps that are exactly similar to those described for microcontrollers.įor microcontrollers and microprocessor Arm ® Cortex ®-M, the second step consists in configuring each required embedded software thanks to a pinout-conflict solver, a clock-tree setting helper, a power-consumption calculator, and an utility that configures the peripherals (such as GPIO or USART) and the middleware stacks (such as USB or TCP/IP). Specific utilities, such as DDR configuration and tuning, make it easy to get started with STM32 microprocessors. The first step consists in selecting either an STMicrolectronics STM32 microcontroller, microprocessor or a development platform that matches the required set of peripherals, or an example running on a specific development platform.įor microprocessors, the second step allows to configure the GPIOs and the clock setup for the whole system, and to interactively assign peripherals either to the Arm ® Cortex ®-M or to the Cortex ®-A world. ![]()
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