private string GetSpecific(KernelConstantInfo kci)
{
StringBuilder sb = new StringBuilder();
if (kci != null)
{
sb.AppendLine("Declaration : " + kci.GetDeclaration());
}
return sb.ToString();
}
private void lbConstants_SelectedIndexChanged(object sender, EventArgs e)
{
KernelConstantInfo item = lbConstants.SelectedItem as KernelConstantInfo;
if (item != null)
{
string text = GetCommon(item as KernelMemberInfo);
tbConstants.Text = text;
text = GetSpecific(item);
tbConstants.AppendText(text);
}
}
protected override void DoCopyToConstantMemoryAsync <T>(IntPtr hostArray, int hostOffset, Array devArray, int devOffset, int count, KernelConstantInfo ci, int streamId)
{
if (streamId >= 0 && !_streams.ContainsKey(streamId))
{
_streams.Add(streamId, streamId);
}
int size = MSizeOf(typeof(T));
GCHandle handle = GCHandle.Alloc(devArray, GCHandleType.Pinned);
IntPtr devArrayPtr = new IntPtr(handle.AddrOfPinnedObject().ToInt64() + (devOffset * size));
IntPtr hostArrayPtr = new IntPtr(hostArray.ToInt64() + (hostOffset * size));
CopyMemory(devArrayPtr, hostArrayPtr, (uint)(count * size));
}
/// <summary>
/// Does the copy to constant memory.
/// </summary>
/// <typeparam name="T"></typeparam>
/// <param name="hostArray">The host array.</param>
/// <param name="hostOffset">The host offset.</param>
/// <param name="devArray">The dev array.</param>
/// <param name="devOffset">The dev offset.</param>
/// <param name="count">The count.</param>
/// <param name="ci">The ci.</param>
protected override void DoCopyToConstantMemory <T>(Array hostArray, int hostOffset, Array devArray, int devOffset, int count, KernelConstantInfo ci)
{
Array.Copy(hostArray, hostOffset, devArray, devOffset, count);
}
public static void AddConstant(KernelConstantInfo kci)
{
_constants.Add(kci);
}
private static CudafyModule DoCudafy(CudafyModule cm, params Type[] types)
{
MemoryStream output = new MemoryStream();
var outputSw = new StreamWriter(output);
MemoryStream structs = new MemoryStream();
var structsSw = new StreamWriter(structs);
var structsPto = new PlainTextOutput(structsSw);
MemoryStream declarations = new MemoryStream();
var declarationsSw = new StreamWriter(declarations);
var declarationsPto = new PlainTextOutput(declarationsSw);
MemoryStream code = new MemoryStream();
var codeSw = new StreamWriter(code);
var codePto = new PlainTextOutput(codeSw);
bool isDummy = false;
eCudafyDummyBehaviour behaviour = eCudafyDummyBehaviour.Default;
Dictionary <string, ModuleDefinition> modules = new Dictionary <string, ModuleDefinition>();
var compOpts = new DecompilationOptions {
FullDecompilation = true
};
CUDALanguage.Reset();
bool firstPass = true;
if (cm == null)
{
cm = new CudafyModule();// #######!!!
}
else
{
firstPass = false;
}
// Test structs
//foreach (var strct in types.Where(t => !t.IsClass))
// if (strct.GetCustomAttributes(typeof(CudafyAttribute), false).Length == 0)
// throw new CudafyLanguageException(CudafyLanguageException.csCUDAFY_ATTRIBUTE_IS_MISSING_ON_X, strct.Name);
IEnumerable <Type> typeList = GetWithNestedTypes(types);
foreach (var type in typeList)
{
if (!modules.ContainsKey(type.Assembly.Location))
{
modules.Add(type.Assembly.Location, ModuleDefinition.ReadModule(type.Assembly.Location));
}
}
// Additional loop to compile in order
foreach (var requestedType in typeList)
{
foreach (var kvp in modules)
{
foreach (var td in kvp.Value.Types)
{
List <TypeDefinition> tdList = new List <TypeDefinition>();
tdList.Add(td);
tdList.AddRange(td.NestedTypes);
Type type = null;
foreach (var t in tdList)
{
//type = typeList.Where(tt => tt.FullName.Replace("+", "") == t.FullName.Replace("/", "")).FirstOrDefault();
// Only select type if this matches the requested type (to ensure order is maintained).
type = requestedType.FullName.Replace("+", "") == t.FullName.Replace("/", "") ? requestedType : null;
if (type == null)
{
continue;
}
Debug.WriteLine(t.FullName);
// Types
var attr = t.GetCudafyType(out isDummy, out behaviour);
if (attr != null)
{
_cl.DecompileType(t, structsPto, compOpts);
if (firstPass)
{
cm.Types.Add(type.FullName.Replace("+", ""), new KernelTypeInfo(type, isDummy, behaviour));// #######!!!
}
}
else if (t.Name == td.Name)
{
// Fields
foreach (var fi in td.Fields)
{
attr = fi.GetCudafyType(out isDummy, out behaviour);
if (attr != null)
{
VerifyMemberName(fi.Name);
System.Reflection.FieldInfo fieldInfo = type.GetField(fi.Name, BindingFlags.Static | BindingFlags.Public | BindingFlags.NonPublic);
if (fieldInfo == null)
{
throw new CudafyLanguageException(CudafyLanguageException.csX_ARE_NOT_SUPPORTED, "Non-static fields");
}
int[] dims = _cl.GetFieldInfoDimensions(fieldInfo);
_cl.DecompileCUDAConstantField(fi, dims, codePto, compOpts);
var kci = new KernelConstantInfo(fi.Name, fieldInfo, isDummy);
if (firstPass)
{
cm.Constants.Add(fi.Name, kci);// #######!!!
}
CUDALanguage.AddConstant(kci);
}
}
#warning TODO Only Global Methods can be called from host
#warning TODO For OpenCL may need to do Methods once all Constants have been handled
// Methods
foreach (var med in td.Methods)
{
attr = med.GetCudafyType(out isDummy, out behaviour);
if (attr != null)
{
if (!med.IsStatic)
{
throw new CudafyLanguageException(CudafyLanguageException.csX_ARE_NOT_SUPPORTED, "Non-static methods");
}
_cl.DecompileMethodDeclaration(med, declarationsPto, new DecompilationOptions {
FullDecompilation = false
});
_cl.DecompileMethod(med, codePto, compOpts);
MethodInfo mi = type.GetMethod(med.Name, BindingFlags.Static | BindingFlags.Public | BindingFlags.NonPublic);
if (mi == null)
{
continue;
}
VerifyMemberName(med.Name);
eKernelMethodType kmt = eKernelMethodType.Device;
kmt = GetKernelMethodType(attr, mi);
if (firstPass)
{
cm.Functions.Add(med.Name, new KernelMethodInfo(type, mi, kmt, isDummy, behaviour, cm));// #######!!!
}
}
}
}
}
}
}
}
codeSw.Flush();
if (CudafyTranslator.Language == eLanguage.OpenCL)
{
outputSw.WriteLine("#if defined(cl_khr_fp64)");
outputSw.WriteLine("#pragma OPENCL EXTENSION cl_khr_fp64: enable");
outputSw.WriteLine("#elif defined(cl_amd_fp64)");
outputSw.WriteLine("#pragma OPENCL EXTENSION cl_amd_fp64: enable");
outputSw.WriteLine("#endif");
}
foreach (var oh in CUDALanguage.OptionalHeaders)
{
if (oh.Used && !oh.AsResource)
{
outputSw.WriteLine(oh.IncludeLine);
}
else if (oh.Used)
{
outputSw.WriteLine(GetResourceString(oh.IncludeLine));
}
}
foreach (var oh in CUDALanguage.OptionalFunctions)
{
if (oh.Used)
{
outputSw.WriteLine(oh.Code);
}
}
declarationsSw.WriteLine();
declarationsSw.Flush();
structsSw.WriteLine();
structsSw.Flush();
foreach (var def in cm.GetDummyDefines())
{
outputSw.WriteLine(def);
}
foreach (var inc in cm.GetDummyStructIncludes())
{
outputSw.WriteLine(inc);
}
foreach (var inc in cm.GetDummyIncludes())
{
outputSw.WriteLine(inc);
}
outputSw.Flush();
output.Write(structs.GetBuffer(), 0, (int)structs.Length);
output.Write(declarations.GetBuffer(), 0, (int)declarations.Length);
output.Write(code.GetBuffer(), 0, (int)code.Length);
outputSw.Flush();
#if DEBUG
using (FileStream fs = new FileStream("output.cu", FileMode.Create))
{
fs.Write(output.GetBuffer(), 0, (int)output.Length);
}
#endif
String s = Encoding.UTF8.GetString(output.GetBuffer(), 0, (int)output.Length);
//cm.SourceCode = s;// #######!!!
var scf = new SourceCodeFile(s, Language, _architecture);
cm.AddSourceCodeFile(scf);
return(cm);
}
protected override void DoCopyToConstantMemoryAsync <T>(IntPtr hostArray, int hostOffset, Array devArray, int devOffset, int count, KernelConstantInfo ci, int streamId)
{
DoCopyToDeviceAsync <T>(hostArray, hostOffset, devArray, devOffset, count, streamId);
}
