Loading files
This file is pinned to the selected release. Download the original to open it in your design tool.
39849e469This file is pinned to the selected release. Download the original to open it in your design tool.
using System;
using System.Linq;
using System.Threading.Tasks;
using Hast.Layer;
using Hast.Samples.Consumer.SampleRunners;
using Hast.Samples.SampleAssembly;
using Hast.Transformer.Vhdl.Abstractions.Configuration;
using System.IO;
namespace Hast.Samples.Consumer
{
// In this simple console application we generate hardware from some sample algorithms. Note that the project also
// references other projects (and the sample assembly as well), so check out those too on hints which Hastlayer
// projects to reference from your own projects.
// Configure the whole sample project here:
internal static class Configuration
{
/// <summary>
/// Specify a path here where the VHDL file describing the hardware to be generated will be saved. If the path
/// is relative (like the default) then the file will be saved along this project's executable in the bin output
/// directory. If an empty string or null is specified then no file will be generated.
/// </summary>
public static string VhdlOutputFilePath = @"Hast_IP.vhd";
/// <summary>
/// Which sample algorithm to transform and run? Choose one. Currently the following samples are not up-to-date
/// enough and shouldn't be really taken as good examples (check out the other ones): GenomeMatcher,
/// ImageProcessingAlgorithms, MonteCarloAlgorithm.
/// </summary>
public static Sample SampleToRun = Sample.LzmaCompressor;
}
class Program
{
static void Main(string[] args)
{
// Wrapping the whole program into Task.Run() is a workaround for async just to be able to run all this from
// inside a console app.
Task.Run(async () =>
{
/*
* On a high level these are the steps to use Hastlayer:
* 1. Create the Hastlayer shell.
* 2. Configure hardware generation and generate FPGA hardware representation of the given .NET code.
* 3. Generate proxies for hardware-transformed types and use these proxies to utilize hardware
* implementations. (You can see this inside the SampleRunners.)
*/
// Configuring the Hastlayer shell. Which flavor should we use? If you're unsure then you'll need
// the Client flavor: This will let you connect to a remote Hastlayer service to run the software
// to hardware transformation.
var hastlayerConfiguration = new HastlayerConfiguration { Flavor = HastlayerFlavor.Developer };
// Initializing a Hastlayer shell. Since this is non-trivial to do you can cache this shell object
// while the program runs and re-use it continuously. No need to always wrap it into a using() like
// here, just make sure to Dispose() it before the program terminates.
using (var hastlayer = await Hastlayer.Create(hastlayerConfiguration))
{
// Hooking into an event of Hastlayer so some execution information can be made visible on the
// console.
hastlayer.ExecutedOnHardware += (sender, e) =>
{
Console.WriteLine(
"Executing " +
e.MemberFullName +
" on hardware took " +
e.HardwareExecutionInformation.HardwareExecutionTimeMilliseconds +
"ms (net) " +
e.HardwareExecutionInformation.FullExecutionTimeMilliseconds +
" milliseconds (all together)");
};
// We need to set what kind of device (FPGA/FPGA board) to generate the hardware for.
var devices = await hastlayer.GetSupportedDevices();
// Let's just use the first one that is available. However you might want to use a specific
// device, not just any first one.
var configuration = new HardwareGenerationConfiguration(devices.First().Name);
// If you're running Hastlayer in the Client flavor, you also need to configure some credentials
// here:
var remoteClientConfiguration = configuration.RemoteClientConfiguration();
remoteClientConfiguration.AppId = "TestApp";
remoteClientConfiguration.AppSecret = "appsecret";
// Letting the configuration of samples run. Check out those methods too!
switch (Configuration.SampleToRun)
{
case Sample.GenomeMatcher:
GenomeMatcherSampleRunner.Configure(configuration);
break;
case Sample.ParallelAlgorithm:
ParallelAlgorithmSampleRunner.Configure(configuration);
break;
case Sample.ImageProcessingAlgorithms:
ImageProcessingAlgorithmsSampleRunner.Configure(configuration);
break;
case Sample.LzmaCompressor:
LzmaCompressorSampleRunner.Configure(configuration);
break;
case Sample.MonteCarloAlgorithm:
MonteCarloAlgorithmSampleRunner.Configure(configuration);
break;
case Sample.ObjectOrientedShowcase:
ObjectOrientedShowcaseSampleRunner.Configure(configuration);
break;
case Sample.PrimeCalculator:
PrimeCalculatorSampleRunner.Configure(configuration);
break;
case Sample.RecursiveAlgorithms:
RecursiveAlgorithmsSampleRunner.Configure(configuration);
break;
case Sample.SimdCalculator:
SimdCalculatorSampleRunner.Configure(configuration);
break;
default:
break;
}
// The generated VHDL code will contain debug-level information, though it will be slower to
// create.
configuration.VhdlTransformerConfiguration().VhdlGenerationMode = VhdlGenerationMode.Debug;
// Generating hardware from the sample assembly with the given configuration.
var hardwareRepresentation = await hastlayer.GenerateHardware(
new[]
{
// Selecting any type from the sample assembly here just to get its Assembly object.
typeof(PrimeCalculator).Assembly
},
configuration);
if (!string.IsNullOrEmpty(Configuration.VhdlOutputFilePath))
{
await hardwareRepresentation.HardwareDescription.WriteSource(Configuration.VhdlOutputFilePath);
}
// Temporary return to only test transformation.
return;
// Running samples.
switch (Configuration.SampleToRun)
{
case Sample.GenomeMatcher:
await GenomeMatcherSampleRunner.Run(hastlayer, hardwareRepresentation);
break;
case Sample.ParallelAlgorithm:
await ParallelAlgorithmSampleRunner.Run(hastlayer, hardwareRepresentation);
break;
case Sample.ImageProcessingAlgorithms:
await ImageProcessingAlgorithmsSampleRunner.Run(hastlayer, hardwareRepresentation);
break;
case Sample.LzmaCompressor:
await LzmaCompressorSampleRunner.Run(hastlayer, hardwareRepresentation);
break;
case Sample.MonteCarloAlgorithm:
await MonteCarloAlgorithmSampleRunner.Run(hastlayer, hardwareRepresentation);
break;
case Sample.ObjectOrientedShowcase:
await ObjectOrientedShowcaseSampleRunner.Run(hastlayer, hardwareRepresentation);
break;
case Sample.PrimeCalculator:
await PrimeCalculatorSampleRunner.Run(hastlayer, hardwareRepresentation);
break;
case Sample.RecursiveAlgorithms:
await RecursiveAlgorithmsSampleRunner.Run(hastlayer, hardwareRepresentation);
break;
case Sample.SimdCalculator:
await SimdCalculatorSampleRunner.Run(hastlayer, hardwareRepresentation);
break;
default:
break;
}
}
}).Wait();
Console.WriteLine("Press any key to exit.");
Console.ReadKey();
}
}
}