After setting up a development environment, simply connect the CFHEADER module to the development machine, and then use Visual Studio, and any .NET language (e.g. C# or VB.NET), to automate the IO modules using the ComfileTech.Cfnet.Cfheader API.

Debug the entire solution on the Windows development machine before deploying to an ARM Linux or other target device. Since the development machine is usually much more powerful than the target device, local edit-run-debug iterations are far more productive.

var cfheader0 = Cfheader.Instances[0];
var digitalOutputModule0 = cfheader0.DigitalOutputModules[0];
 
cfheader0.Open();
 
while (true)
{
    // Blink each output in increasing order
    foreach (var channel in digitalOutputModule0.Channels)
    {
        channel.State = !channel.State;
        Thread.Sleep(50);
        channel.State = !channel.State;
        Thread.Sleep(50);
    }
 
    // Blink each output in decreasing order
    foreach (var channel in digitalOutputModule0.Channels.Reverse())
    {
        channel.State = !channel.State;
        Thread.Sleep(50);
        channel.State = !channel.State;
        Thread.Sleep(50);
    }
}

• Setting Up a Development Environment - Describes how to set up a development environment for programming a CFHDR-8U module using Visual Studio.
• Setting Up a Runtime Environment - Describes how to configure a target computer to deploy a CFHDR-8U .NET application to.
• Creating a New Project - Describes how to create a new CFHDR-8U .NET project from scratch.
• Mode of Operation - Describes the primary mode of operation of a CFHDR-8U module, and the typical programming patterns used to automate it.
• Automating IO Modules - Detailed explanations and examples on how to use the ComfileTech.Cfnet.Cfheader API to automate each of the CFNET IO modules.
• Improving Real-time Performance - Describes features and techniques to improve determinism and real-time performance when using the CFHDR-8U with a Windows or Linux USB host.