**Foreword**
This tutorial is designed to help you set up an embedded ARM development environment using the ARM920T and Cortex-A8 cores, based solely on the data provided in the attached CD image file. The setup is intended for users who are working within a Windows environment and wish to run a Linux-based virtual machine to develop embedded applications.
First, it's important to note that the process involves using a virtualization tool like VMware Player to create a Linux environment where you can install and configure all necessary tools for ARM development.
Here are the detailed steps to build the development environment:
1. **Install Virtualization Tools**:
Begin by opening the Linux-dev.iso image file using software like WinRAR or 7-Zip. Extract the file `/WIN32/Daemon_Tools_4.46.1.328.exe` and install it. Once installed, use Daemon Tools to load the same ISO file. Then, run the `VMware-player-5.0.1-894247.exe` from the `/vmplayer/` folder.
2. **Set Up the Virtual Machine**:
Copy the `VMware-linux-tools.iso` file to a location such as `D:\Virtual Machines\`. Also, copy the entire `Ubuntu` folder to the same directory. Open VMware Player and select "Open a Virtual Machine," then navigate to the `Ubuntu.vmx` file you just copied.
3. **Configure the Virtual Machine**:
After launching the VM, go to "Edit Virtual Machine Settings." If your CPU is single-core, adjust the number of processors to 1. Next, under "CD/DVD (IDE)," browse to the `VMware-linux-tools.iso` you copied earlier. Then, go to the "Shared Folders" section, enable it, and add a shared folder (e.g., `D:\Virtual Machines\shared_folder`).
4. **Install VMware Tools**:
Boot into the Ubuntu VM and locate the CD icon on the desktop. Right-click and open a terminal. Navigate to `/tmp`, extract the VMware Tools package, and follow the installation instructions. You may need to enter the password "redeem2012" during the process.
5. **Install Required Libraries and Tools**:
After rebooting, mount the shared folder and install essential libraries like `libusb-1.0.9.tar.bz2` and `readline-6.2.tar.gz`. Compile and install them using standard commands like `./configure`, `make`, and `sudo make install`.
6. **Set Up the Cross Compiler**:
Extract the cross-compiler `arm-linux-gcc-3.4.5.tar.bz2` to `/home`, and update your environment variables by editing the `.profile` file to include the compiler path.
7. **Install J-Link and Minicom**:
Copy the J-Link package to the shared folder and install it by copying the necessary files to `/usr/lib`. To use J-Link, ensure the device is connected directly to the host system, not the VM. Additionally, install `minicom` via the `.deb` package and configure it for serial communication.
8. **Final Steps**:
Reboot the system and verify that all components are functioning correctly. You should now have a fully functional embedded ARM development environment without needing internet access.
While this guide focuses on the Windows-based setup, the Linux version would involve similar steps but with different package management and configuration methods. All tools required are included in the CD image, so no external downloads are needed.
Finally, remember that learning embedded systems requires patience and practice. While this guide provides a solid foundation, further exploration and experimentation are encouraged. Good luck on your journey into embedded development!
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