} // end of test_classes
static void test_integer_dtype()
{
const string GEN_FILE_NAME = "gen_types.h5";
const string INT_TYPE_NAME = "new integer type 1";
try
{
Console.Write("Testing getting some integer information");
H5FileId genfileId = H5F.open(GEN_FILE_NAME, H5F.OpenMode.ACC_RDONLY);
// Open the datatype to check.
H5DataTypeId dtypeId = H5T.open(genfileId, INT_TYPE_NAME);
int offset = H5T.getOffset(dtypeId);
if (offset != 0)
{
Console.WriteLine("Incorrect offset: {0}, should be {1}", offset, 0);
nerrors++;
}
int size = H5T.getSize(dtypeId);
if (size != 3)
{
Console.WriteLine("Incorrect size: {0}, should be {1}", size, 3);
nerrors++;
}
// Close datatype and file.
H5T.close(dtypeId);
H5F.close(genfileId);
Console.WriteLine("\t\tPASSED");
} // end of try block
catch (HDFException anyHDF5E)
{
Console.WriteLine(anyHDF5E.Message);
nerrors++;
}
catch (System.Exception sysE)
{
Console.WriteLine(sysE.TargetSite);
Console.WriteLine(sysE.Message);
nerrors++;
}
} // test_integer_dtype
public static long GetHdfTypeIdFromType(long fileId, Type type)
{
Type elementType;
elementType = type.IsArray ? type.GetElementType() : type;
if (elementType == typeof(bool))
{
return(H5T.NATIVE_UINT8);
}
else if (elementType == typeof(Byte))
{
return(H5T.NATIVE_UINT8);
}
else if (elementType == typeof(SByte))
{
return(H5T.NATIVE_INT8);
}
else if (elementType == typeof(UInt16))
{
return(H5T.NATIVE_UINT16);
}
else if (elementType == typeof(Int16))
{
return(H5T.NATIVE_INT16);
}
else if (elementType == typeof(UInt32))
{
return(H5T.NATIVE_UINT32);
}
else if (elementType == typeof(Int32))
{
return(H5T.NATIVE_INT32);
}
else if (elementType == typeof(UInt64))
{
return(H5T.NATIVE_UINT64);
}
else if (elementType == typeof(Int64))
{
return(H5T.NATIVE_INT64);
}
else if (elementType == typeof(Single))
{
return(H5T.NATIVE_FLOAT);
}
else if (elementType == typeof(Double))
{
return(H5T.NATIVE_DOUBLE);
}
else if (elementType == typeof(string) || elementType == typeof(IntPtr))
{
long typeId = 0;
if (H5I.is_valid(fileId) > 0 && H5L.exists(fileId, "string_t") > 0)
{
typeId = H5T.open(fileId, "string_t");
}
else
{
typeId = H5T.copy(H5T.C_S1);
H5T.set_size(typeId, H5T.VARIABLE);
H5T.set_cset(typeId, H5T.cset_t.UTF8);
if (fileId > -1 && H5T.commit(fileId, "string_t", typeId) < 0)
{
throw new Exception(ErrorMessage.TypeConversionHelper_CouldNotCommitDataType);
}
}
return(typeId);
}
else if (elementType.IsValueType && !elementType.IsPrimitive && !elementType.IsEnum)
{
long typeId = 0;
if (H5I.is_valid(fileId) > 0 && H5L.exists(fileId, elementType.Name) > 0)
{
typeId = H5T.open(fileId, elementType.Name);
}
else
{
typeId = H5T.create(H5T.class_t.COMPOUND, new IntPtr(Marshal.SizeOf(elementType)));
foreach (FieldInfo fieldInfo in elementType.GetFields())
{
long fieldType = -1;
fieldType = TypeConversionHelper.GetHdfTypeIdFromType(fileId, fieldInfo.FieldType);
H5T.insert(typeId, fieldInfo.Name, Marshal.OffsetOf(elementType, fieldInfo.Name), fieldType);
if (H5I.is_valid(fieldType) > 0)
{
H5T.close(fieldType);
}
}
if (fileId > -1 && H5T.commit(fileId, elementType.Name, typeId) < 0)
{
throw new Exception(ErrorMessage.TypeConversionHelper_CouldNotCommitDataType);
}
}
return(typeId);
}
else
{
throw new NotSupportedException();
}
}
/// <summary>
/// Constructs a new EpochHDF5Persistor with an HDF5 file at the given path.
/// </summary>
/// <param name="filename">Desired HDF5 path</param>
/// <param name="assocFilePrefix">Prefix for auxiliary (e.g. image) file associated with this HDF5 file</param>
/// <param name="guidGenerator">Function for generating new UUIDs (e.g. Guid.NewGuid)</param>
/// <param name="compression">Automatically numeric data compression (0 = none, 9 = maximum)</param>
public EpochHDF5Persistor(string filename, string assocFilePrefix, Func <Guid> guidGenerator, uint compression = 9)
: base(guidGenerator)
{
if (filename == null)
{
throw new ArgumentException("File name must not be null", "filename");
}
if (compression > 9)
{
throw new ArgumentException("Compression must be 0-9", "compression");
}
if (assocFilePrefix == null)
{
assocFilePrefix = "";
}
this.AssociatedFilePrefix = assocFilePrefix;
NumericDataCompression = compression;
EpochGroupsIDs = new Stack <EpochGroupIDs>();
var fInfo = new FileInfo(filename);
string prefixedFilePath = fInfo.DirectoryName + Path.DirectorySeparatorChar + this.AssociatedFilePrefix + fInfo.Name;
var currentFile = new FileInfo(prefixedFilePath);
if (currentFile.Exists)
{
fileId = H5F.open(prefixedFilePath, H5F.OpenMode.ACC_RDWR);
string_t = H5T.open(fileId, "STRING40");
keyval_t = H5T.open(fileId, "KEY40VAR40");
measurement_t = H5T.open(fileId, "MEASUREMENT");
extdevmeasurement_t = H5T.open(fileId, "EXTDEV_MEASUREMENT");
//TODO Check persistence version
}
else
{
fileId = H5F.create(prefixedFilePath, H5F.CreateMode.ACC_EXCL);
WriteAttribute(fileId, "version", Version);
// Create our standard String type (string of length FIXED_STRING_LENGTH characters)
string_t = H5T.copy(H5T.H5Type.C_S1);
H5T.setSize(string_t, 40);
H5T.commit(fileId, "STRING40", string_t);
// Create our key/value compound type (two strings of length 40 characters)
keyval_t = H5T.create(H5T.CreateClass.COMPOUND, 80);
H5T.insert(keyval_t, "key", 0, string_t);
H5T.insert(keyval_t, "value", FIXED_STRING_LENGTH, string_t);
H5T.commit(fileId, "KEY40VAR40", keyval_t);
// Create the Measurement compound type
measurement_t = H5T.create(H5T.CreateClass.COMPOUND, 48); // confirm 48 is enough/too much/whatever
H5T.insert(measurement_t, "quantity", 0, H5T.H5Type.NATIVE_DOUBLE);
H5T.insert(measurement_t, "unit", H5T.getSize(H5T.H5Type.NATIVE_DOUBLE), string_t);
H5T.commit(fileId, "MEASUREMENT", measurement_t);
// Create the ExtDev/Measurement compound type
extdevmeasurement_t = H5T.create(H5T.CreateClass.COMPOUND,
H5T.getSize(string_t) + 2 * H5T.getSize(measurement_t));
H5T.insert(extdevmeasurement_t, "externalDevice", 0, string_t);
H5T.insert(extdevmeasurement_t, "measurement", H5T.getSize(string_t), measurement_t);
H5T.commit(fileId, "EXTDEV_MEASUREMENT", extdevmeasurement_t);
}
Interlocked.Increment(ref _openHdf5FileCount);
}
static void test_enum_dtype(H5FileId fileId)
{
short i, j;
string[] mname = { "RED", "GREEN", "BLUE", "YELLOW", "PINK", "PURPLE", "ORANGE", "WHITE" };
short[,] spoints2 = new short[DIM0, DIM1];
short[,] scheck2 = new short[DIM0, DIM1];
try
{
Console.Write("Testing enumeration datatypes");
// Create the data space */
hssize_t[] dims = { DIM0, DIM1 };
H5DataSpaceId dspace = H5S.create_simple(2, dims);
// Construct enum type based on native type
H5DataTypeId etype = H5T.enumCreate(H5T.H5Type.NATIVE_SHORT);
// Insert members to type.
for (i = 0; i < 8; i++)
{
H5T.enumInsert(etype, mname[i], ref i);
}
// Assign a name to the enum type, close it, and open it by name.
H5T.commit(fileId, "Color Type", etype);
H5T.close(etype);
H5DataTypeId color_type = H5T.open(fileId, "Color Type");
// Check its class
H5T.H5TClass tcls = H5T.getClass(color_type);
if (tcls != H5T.H5TClass.ENUM)
{
Console.WriteLine("test_enum: class of color_type = {0} is incorrect, should be ENUM", tcls);
}
// Create the dataset
H5DataSetId dsetId = H5D.create(fileId, DSET_ENUM_NAME, color_type, dspace);
// Construct enum type based on native type in memory.
H5DataTypeId etype_m = H5T.enumCreate(H5T.H5Type.NATIVE_SHORT);
// Insert members to type.
for (i = 0; i < 8; i++)
{
H5T.enumInsert(etype_m, mname[i], ref i);
}
// Initialize the dataset and buffer.
for (i = 0; i < DIM0; i++)
{
for (j = 0; j < DIM1; j++)
{
spoints2[i, j] = i;
scheck2[i, j] = 0;
}
}
// Write the data to the dataset.
H5D.write(dsetId, etype_m, new H5Array <short>(spoints2));
// Close objects.
H5D.close(dsetId);
H5T.close(color_type);
H5S.close(dspace);
H5T.close(etype_m);
// Open dataset again to check the type.
dsetId = H5D.open(fileId, DSET_ENUM_NAME);
// Get dataset's datatype.
H5DataTypeId dstype = H5D.getType(dsetId);
// Get the datatype's class and check that it is of class ENUM.
H5T.H5TClass tclass = H5T.getClass(dstype);
if (tclass != H5T.H5TClass.ENUM)
{
Console.WriteLine("Type should be an enum class");
nerrors++;
}
// Check name of an enum value.
int memb_num = 2;
string memb_name = H5T.enumNameOf(dstype, ref memb_num);
if (memb_name != "BLUE")
{
Console.WriteLine("Member name of value 2 should be BLUE");
nerrors++;
}
// Check value of an enum name.
int memb_value = 0;
H5T.enumValueOf(dstype, memb_name, out memb_value);
if (memb_value != 2)
{
Console.WriteLine("Member value of BLUE should be 2");
nerrors++;
}
// Check member's value by member number.
H5T.getMemberValue(dstype, 4, out memb_value);
// Read data back.
H5D.read(dsetId, dstype, new H5Array <short>(scheck2));
// Close objects.
H5D.close(dsetId);
H5T.close(dstype);
Console.WriteLine("\t\t\t\tPASSED");
} // end of try block
catch (HDFException anyHDF5E)
{
Console.WriteLine(anyHDF5E.Message);
nerrors++;
}
catch (System.Exception sysE)
{
Console.WriteLine(sysE.TargetSite);
Console.WriteLine(sysE.Message);
nerrors++;
}
} // end of test_enum_dtype
} // test_integer_dtype
static void test_float_dtype()
{
try
{
Console.Write("Testing getting some floating-point information");
const string GEN_FILE_NAME = "gen_types.h5";
const string FLOAT_TYPE_NAME = "new float type 1";
// Open file pre-generated by a C program.
H5FileId genfileId = H5F.open(GEN_FILE_NAME, H5F.OpenMode.ACC_RDONLY);
// Open the datatype to check.
H5DataTypeId dtypeId = H5T.open(genfileId, FLOAT_TYPE_NAME);
// Get and check fields.
H5FloatingBitFields fields = H5T.getFields(dtypeId);
if (fields.signBitPosition != 44)
{
Console.WriteLine("Incorrect sign bit position: {0}, should be {1}", fields.signBitPosition, 44);
nerrors++;
}
if (fields.exponentBitPosition != 34)
{
Console.WriteLine("Incorrect exponential bit position: {0}, should be {1}", fields.exponentBitPosition, 34);
nerrors++;
}
if (fields.nExponentBits != 10)
{
Console.WriteLine("Incorrect size of exponent: {0}, should be {1}", fields.nExponentBits, 10);
nerrors++;
}
if (fields.mantissaBitPosition != 3)
{
Console.WriteLine("Incorrect mantissa bit-position: {0}, should be {1}", fields.mantissaBitPosition, 3);
nerrors++;
}
if (fields.nMantissaBits != 31)
{
Console.WriteLine("Incorrect size of mantissa: {0}, should be {1}", fields.nMantissaBits, 44);
nerrors++;
}
// Check precision.
int precision = H5T.getPrecision(dtypeId);
if (precision != 42)
{
Console.WriteLine("Incorrect precision: {0}, should be {1}", precision, 42);
nerrors++;
}
// Check offset.
int offset = H5T.getOffset(dtypeId);
if (offset != 3)
{
Console.WriteLine("Incorrect offset: {0}, should be {1}", offset, 3);
nerrors++;
}
// Check norm.
H5T.Norm norm = H5T.getNorm(dtypeId);
if (norm != H5T.Norm.IMPLIED) // need to be determined, not really 3
{
Console.WriteLine("Incorrect norm: {0}, should be {1}", norm, H5T.Norm.IMPLIED);
nerrors++;
}
// Check size.
int size = H5T.getSize(dtypeId);
if (size != 7)
{
Console.WriteLine("Incorrect size: {0}, should be {1}", size, 7);
nerrors++;
}
// Close datatype and file.
H5T.close(dtypeId);
H5F.close(genfileId);
Console.WriteLine("\t\tPASSED");
} // end of try block
catch (HDFException anyHDF5E)
{
Console.WriteLine(anyHDF5E.Message);
nerrors++;
}
catch (System.Exception sysE)
{
Console.WriteLine(sysE.TargetSite);
Console.WriteLine(sysE.Message);
nerrors++;
}
} // end of test_float_dtype
