Getting Started with i.MX RT1010 Evaluation Kit

1. Install CMSIS device pack

After the MDK tools are installed, Cortex^® Microcontroller Software Interface Standard (CMSIS) device packs must be installed to fully support the device from a debug perspective. These packs include things such as memory map information, register definitions and flash programming algorithms. Follow these steps to install the IMXRT1010 CMSIS pack.

1. Download the iMXRT pack
2. After downloading the DFP, double click to install it.

2. Build the Example Application

The following steps will guide you through opening the hello_world application. These steps may change slightly for other example applications as some of these applications may have additional layers of folders in their path.

1. If not already done, open the desired demo application workspace in:

   /boards/// /mdk

   The workspace file is named .uvmpw, so for this specific example, the actual path is:

   /boards/evkmimxrt1010/demo_apps/hello_world/mdk/hello_world.uvmpw

2. To build the demo project, select the "Rebuild" button, highlighted in red.

   

3. The build completes without errors.

3. Run an Example Application

To download and run the application, perform these steps:

1. Connect the development platform to your PC via USB cable.

2. Open the terminal application on the PC, such as PuTTY or TeraTerm, and connect to the debug serial port number. Configure the terminal with these settings:

   • 115200 baud rate, (reference BOARD_DEBUG_UART_BAUDRATE variable in board.h file)
   • No parity
   • 8 data bits
   • 1 stop bit

3. After the application is properly built, click the "Load" button to download the application to the target.

   

4. To debug the application, click the “Start/Stop Debug Session” button, highlighted in red.

   

5. Run the code by clicking the "Run" button to start the application.

   

6. The hello_world application is now running and a banner is displayed on the terminal. If this is not true, check your terminal settings and connections.

   

1. Import the MCUXpresso SDK

1. Open MCUXpresso IDE
2. Choose a directory on your computer as a workspace.
   
3. Switch to the Installed SDKs view within the MCUXpresso IDE window.
   
4. Open Windows Explorer, and drag and drop the EVK-MIMXRT1010 SDK zip file into the Installed SDKs view.
5. You will get a prompt as follows. Click on OK to continue the import:
   
6. The installed SDK will appear in the Installed SDKs view as shown below:
   

2. Build an Example Application

The following steps will guide you through opening the hello_world example.

1. Find the Quickstart Panel in the lower left hand corner

   

2. Then click on Import SDK examples(s)…

   

3. Click on the evkmimxrt1010 board to select that you want to import an example that can run on that board, and then click on Next.

   

4. Use the arrow button to expand the demo_apps category, and then click the checkbox next to hello_world to select that project. Make sure that UART is selected as the SDK Debug Console. Then, click on Finish.

   

5. Now build the project by clicking on the project name and then click on the Build icon.

   

6. You can see the status of the build in the Console tab.

   

3. Run an Example Application

1. Now that the project has been compiled, you can now flash it to the board and run it.
2. 2. Make sure that the USB cable is plugged into the OpenSDA debug connector on the MIMXRT1010-EVK and click on Debug in the QuickStart Panel.
   

3. MCUXpresso IDE will probe for connected boards and should find the CMSIS-DAP debug probe that is part of the integrated OpenSDA circuit on the MIMXRT1010-EVK. Click on OK to continue.

   

4. The firmware will be downloaded to the board and the debugger started.

   

5. Open up a terminal program and connect to the COM port the board enumerated as. Use 115200 baud 8 data bits, no parity and 1 stop bit.

6. Start the application by clicking the "Resume" button:

   

7. The hello_world application is now running and a banner is displayed on the terminal. If this is not the case, check your terminal settings and connections.

   

8. Use the controls in the menu bar to pause, step into and step over instructions and then stop the debugging session by click on the Terminate icon:

   

1. Set Up Toolchain

This section contains the steps to install the necessary components required to build and run a KSDK demo application with the Arm GCC toolchain, as supported by the Kinetis SDK. There are many ways to use Arm GCC tools, but this example focuses on a Windows environment. Though not discussed here, GCC tools can also be used with both Linux OS and Mac OSX.

Install GCC Arm Embedded Toolchain

Download and run the installer from launchpad.net/gcc-arm-embedded. This is the actual toolchain (i.e., compiler, linker, etc.). The GCC toolchain should correspond to the latest supported version, as described in the Kinetis SDK Release Notes.

Install MinGW

The Minimalist GNU for Windows (MinGW) development tools provide a set of tools that are not dependent on third-party C-Runtime DLLs (such as Cygwin). The build environment used by the KSDK does not use the MinGW build tools, but does leverage the base install of both MinGW and MSYS. MSYS provides a basic shell with a Unix-like interface and tools.

1. Download the latest MinGW mingw-get-setup installer from sourceforge.net/projects/mingw/files/Installer/.

2. Run the installer. The recommended installation path is C:\MinGW, however, you may install to any location.

NOTE

The installation path cannot contain any spaces.

3. Ensure that the "mingw32-base" and "msys-base" are selected under Basic Setup.

   

4. Click "Apply Changes" in the "Installation" menu and follow the remaining instructions to complete the installation.

   

5. Add the appropriate item to the Windows operating system Path environment variable. It can be found under Control Panel -> System and Security -> System -> Advanced System Settings in the "Environment Variables..." section. The path is:

   \bin

   Assuming the default installation path, C:\MinGW, an example is shown below. If the path is not set correctly, the toolchain does not work.

   NOTE

   If you have "C:\MinGW\msys\x.x\bin" in your PATH variable (as required by KSDK 1.0.0), remove it to ensure that the new GCC build system works correctly.

   

Add a New Environment Variable for ArmGCC_DIR

Create a new system environment variable and name it ArmGCC_DIR. The value of this variable should point to the Arm GCC Embedded tool chain installation path, which, for this example, is:

C:\Program Files (x86)\GNU Tools Arm Embedded\4.9 2015q3

Reference the installation folder of the GNU Arm GCC Embedded tools for the exact pathname of your installation.



Install CMake

1. Download CMake 3.0.x from www.cmake.org/cmake/resources/software.html

2. Install CMake, ensuring that the option "Add CMake to system PATH" is selected when installing. It's up to the user to select whether it's installed into the PATH for all users or just the current user. In this example, the assumption is that it's installed for all users.

   

3. Follow the remaining instructions of the installer.

4. You may need to reboot your system for the PATH changes to take effect.

2. Build an Example Application

To build an example application, follow these steps.

1. 1. If not already running, open a GCC Arm Embedded tool chain command window. To launch the window, from the Windows operating system Start menu, go to “Programs -> GNU Tools Arm Embedded ” and select “GCC Command Prompt.”

2. Change the directory to the example application project directory, which has a path like this:

   /boards/// /armgcc

   For this guide, the exact path is:

   /boards/evkmimxrt1010/demo_apps/hello_world/armgcc

   

3. Type “build_flexspi_nor_debug.bat” on the command line or double click on the "build_flexspi_nor_debug.bat" file in Windows operating system Explorer to perform the build. The output is shown in this figure:

   

3. Run an Example Application

This section describes steps to run a demo application using J-Link GDB Server application. To perform this exercise, two things must be done:

• Make sure that either:

• The OpenSDA interface on your board is programmed with the J-Link OpenSDA firmware. If your board does not support OpenSDA, then a standalone J-Link pod is required.

• You have a standalone J-Link pod that is connected to the debug interface of your board. Note that some hardware platforms require hardware modification in order to function correctly with an external debug interface.

After the J-Link interface is configured and connected, follow these steps to download and run the demo applications:

1. This board supports the J-Link debug probe. Before using it, install SEGGER software, which can be downloaded from segger homepage

2. Connect the development platform to your PC via USB cable between the OpenSDA USB connector and the PC USB connector. If using a standalone J-Link debug pod, also connect it to the SWD/JTAG connector of the board.

3. Open the terminal application on the PC, such as PuTTY or TeraTerm, and connect to the debug serial port number. Configure the terminal with these settings:

• 115200 baud rate, (reference BOARD_DEBUG_UART_BAUDRATE variable in board.h file)

• No parity

• 8 data bits

• 1 stop bit

Open the J-Link GDB Server application. Go to the SEGGER install folder, for example, C:\Program Files (x86)\SEGGER\JLink_V632f. Open the command windows here, for Debug and Release targets, and use the command "JLinkGDBServer.exe". Note: for the sdram_debug and sdram_release targets, use the command "JLinkGDBServer.exescriptfile /boards/evkmimxrt1010/demo_apps/hello_world/evkmimxrt1010_sdram_init.jlinkscript ".

The target device selection chosen for this example is the MIMXRT1011xxx5A.

After it is connected, the screen should resemble this figure:

If not already running, open a GCC Arm Embedded tool chain window. To launch the window, from the Windows operating system Start menu, go to “Programs -> GNU Tools Arm Embedded ” and select “GCC Command Prompt”.

Change to the directory that contains the example application output. The output can be found in using one of these paths, depending on the build target selected:

/boards/// /armgcc/debug

/boards/// /armgcc/release

For this example, the path is:

/boards/evkmimxrt1010/demo_apps/hello_world/armgcc/flexspi_nor_debug

Run the command “arm-none-eabi-gdb.exe .elf”. For this example, it is “arm-none-eabi-gdb.exe hello_world.elf”.

Run these commands:

"target remote localhost: 2331"

"monitor reset"

"monitor halt"

"load"

The application is now downloaded and halted at the reset vector. Execute the “monitor go” command to start the demo application.

The hello_world application is now running and a banner is displayed on the terminal. If this is not true, check your terminal settings and connections.

1. Open the MCUXpresso IDE.
2. Click Import SDK Examples from the QuickStart Panel.
3. Select the FRDM-K64F board in the Import Wizard. Then, select Next.
4. Type “LED” into the search bar and select the “led_output” project under the GPIO driver example. Then, select Next. This will create a new standalone copy of this LED project and put it into the MCUXpresso workspace. To use the UART for printing (instead of the default semihosting), clear the “Enable semihost” checkbox under the project options. Then, click on Next.
5. On the Advanced Settings wizard, clear the checkbox “Redirect SDK “PRINTF” to C library “printf”“ in order to use the MCUXpresso SDK console functions for printing instead of generic C library ones. Then click on Finish.
6. Click on the “led_output” project in the Project Explorer View and build, compile and run the demo as described previously.
7. You should see a red LED blinking on the board.
8. Terminate the debug session.

1. Open the MCUXpresso Config Tool.
2. In the wizard that comes up, browse to the place where the MCUXpresso SDK was unzipped and then select the “Clone an example project” radio button and click on Next.
3. Select the project to clone. For this example, we want to use the LED project. You can filter for this by typing “LED” in the filter box and then selecting the “gpio/led_output” project. Then click on Next.
4. Then select the directory you want to place the cloned project, give it a name and select the IDE to use. Note that only IDEs that were selected in the online SDK builder when the SDK was built will be available. Then click on Finish.
5. After cloning go to the directory you selected and open up the project for your IDE. Import, compile and run the project as done in previous sections.
6. You should see a red LED blinking on the board.
7. Terminate the debug session.

1. Open MCUXpresso Config Tools
   
2. The wizard will ask if you want to start development with or without an SDK. Choose to start development with the SDK and that we want to create a new configuration. Use the “Browse…” button to navigate to the location of your unzipped SDK installation.
3. Select the SDK top-level folder from your file system. Select OK.
4. The wizard asks to create a new configuration or clone an example project. We will Create a new configuration that will be based on the “led_output” project settings from the SDK. Select Next to continue.
5. Search for the led_output example by typing “LED” in the search bar. Select the led_output example and press Finish.
6. Open the pins tool by selecting Tools->Pins from the toolbar.
7. The pins tool should now display the pin configuration for the led_output project.
8. In the Pins view, click the “Show Routed/All Pins” checkbox to see all the routed pins. Routed pins have a check in a green box next to the pin name. The functions selected for each routed pin are highlighted in green in the table.
9. In the current configuration, PTB22 is routed as a GPIO to toggle the red LED. Let’s disable PTB22, and change the MUX setting of PTB21 to use its GPIO functionality to drive the blue LED
10. Disable PTB22 (Red LED) as a GPIO by clicking the “PTB22” field under the GPIO column. The pin will then be disabled (pin will no longer have check in box) and thus disappear from the list.
11. Now, route PTB21 as a GPIO. First, deselect the “Show Routed All/Pins” so that all the pins are displayed again. Then, search PTB21 in the pins view. Finally, click the box under the GPIO column. The box will highlight in green, and a check will appear next to the pin.
12. The updated view will appear as below once you clear the filtered text. Note that PTB21 also appears in the Routed Pins tab and PTB22 has been removed. The pin_mux.c file has been updated to reflect the change as well.
13. PTB21 already has a defined identifier (i.e. “LED_BLUE”) set up for the MIMXRT1010-EVK for the led_output example configuration. Now, change the identifier to “My_LED” next to PTB21 in the Pins table by searching for PTB21. This will add a #define to the pin_mux.h file that will be used to identify the LED.

14. Now export the pin_mux.c and pin_mux.h files by clicking on the Sources tab on the right side to get to the Sources view, and selecting the export icon.

    

15. Select the directory to export the pin_mux.c and pin_mux.h files. In this example export to the “board” folder in the led_output project in the workspace that was created in the previous section.

    (i.e. C:\MCUXpressoIDE_Lab\evkmimxrt1010_driver_examples_gpio_led_output\board). Select Finish.

    
16. Click Yes to replace the existing pin_mux.c and pin_mux.h files.
17. We’ll use MCUXpresso IDE for the rest of the instructions but the same steps can be done in other 3rd party IDEs. Under the “led_output” project, double-click the gpio_led_output.c file in the source folder to display the file in the editor. Notice that the macros used in the GPIO driver functions refer to the BOARD_LED (i.e. red LED). We need to replace these with the macros for My_LED that we just created.
18. Double-click the pin_mux.h file under the board folder in the “led_output” project. Since the file has been updated, press “F5” or File > Refresh to update the file in the editor. Copy “BOARD_INITPIN_My_LED_GPIO” in pin_mux.h.
19. In gpio_led_output.c, replace “BOARD_LED_GPIO” with “BOARD_INITPIN_My_LED_GPIO” in lines 87 and 92.
20. Similarly, copy “BOARD_INITPINS_MY_LED_GPIO_PIN” from pin_mux.h.
21. In gpio_led_output.c, replace “BOARD_LED_GPIO_PIN” with “BOARD_INITPIN_My_LED_GPIO_PIN” in lines 87 and 92.
22. Build and download the project as done in the previous section.
23. Run the application. You should now see the blue LED blinking!
24. Terminate the debug session.

1. Open MCUXpresso Config Tools.
2. Open the Clocks tool from the toolbar: Tools->Clocks.
3. The clock configuration for the “led_output” project will appear in the clocks tool:
4. Switch to the Clocks Diagram view by clicking the tab in the upper left corner, and ensure that the BOARD_BootClockRUN clock mode is being displayed by clicking the tab in the lower left corner.
5. Change the core clock frequency by clicking in the Core Clock field and typing “12 MHz”. You’ll see all the associated clock frequencies automatically change as well then.
6. Now open the “Sources” tab and export the clock_config.c and clock_config.h files.

7. Select the directory to export the clock_config.c and clock_config.h files. In this example export to the “board” folder in the led_output project in the workspace.

   (i.e. C:\MCUXpressoIDE_Lab\evkmimxrt102mx0_driver_examples_gpio_led_output\board). Select Finish.

   
8. Press Yes to replace the existing clock_config.c and clock_config.h files.
9. Now open the LED project in your IDE and build, download and run the project as you did before.
10. The blue LED should now be blinking at a much slower rate