/// <summary>
/// Initializes.
/// </summary>
public XmlRpcServer()
{
TypeSerializerFactory = new TypeSerializerFactory();
TypeConverterFactory = new TypeConverterFactory();
XmlRpcServerConfig config = new XmlRpcServerConfig();
//config.EnabledForExtensions = true;
Config = config;
}
/// <summary>
/// Writes the field to the CSV file
/// using the given <see cref="T:CsvHelper.TypeConversion.ITypeConverter" />.
/// When all fields are written for a record,
/// <see cref="M:CsvHelper.ICsvWriter.NextRecord" /> must be called
/// to complete writing of the current record.
/// </summary>
/// <typeparam name="T">The type of the field.</typeparam>
/// <typeparam name="TConverter">The type of the converter.</typeparam>
/// <param name="field">The field to write.</param>
public virtual void WriteField <T, TConverter>(T field)
{
CheckDisposed();
WriteField(field, TypeConverterFactory.GetConverter <TConverter>());
}
/// <summary>
/// Writes the field to the CSV file
/// using the given <see cref="ITypeConverter"/>.
/// When all fields are written for a record,
/// <see cref="ICsvWriter.NextRecord" /> must be called
/// to complete writing of the current record.
/// </summary>
/// <typeparam name="T">The type of the field.</typeparam>
/// <typeparam name="TConverter">The type of the converter.</typeparam>
/// <param name="field">The field to write.</param>
public virtual void WriteField <T, TConverter>(T field)
{
var converter = TypeConverterFactory.GetConverter <TConverter>();
WriteField(field, converter);
}
/// <summary>
/// Auto maps the given map and checks for circular references as it goes.
/// </summary>
/// <param name="map">The map to auto map.</param>
/// <param name="ignoreReferences">A value indicating if references should be ignored when auto mapping.
/// True to ignore references, otherwise false.</param>
/// <param name="prefixReferenceHeaders">A value indicating if headers of reference properties should
/// get prefixed by the parent property name.
/// True to prefix, otherwise false.</param>
/// <param name="mapParents">The list of parents for the map.</param>
internal static void AutoMapInternal(CsvClassMap map, bool ignoreReferences, bool prefixReferenceHeaders, LinkedList <Type> mapParents, int indexStart = 0)
{
var type = map.GetType().GetTypeInfo().BaseType.GetGenericArguments()[0];
if (typeof(IEnumerable).IsAssignableFrom(type))
{
throw new CsvConfigurationException("Types that inherit IEnumerable cannot be auto mapped. " +
"Did you accidentally call GetRecord or WriteRecord which " +
"acts on a single record instead of calling GetRecords or " +
"WriteRecords which acts on a list of records?");
}
var properties = type.GetProperties(BindingFlags.Instance | BindingFlags.Public);
foreach (var property in properties)
{
var typeConverterType = TypeConverterFactory.GetConverter(property.PropertyType).GetType();
if (typeConverterType == typeof(EnumerableConverter))
{
// The IEnumerable converter just throws an exception so skip it.
continue;
}
var isDefaultConverter = typeConverterType == typeof(DefaultTypeConverter);
var hasDefaultConstructor = property.PropertyType.GetConstructor(new Type[0]) != null;
if (isDefaultConverter && hasDefaultConstructor)
{
if (ignoreReferences)
{
continue;
}
// If the type is not one covered by our type converters
// and it has a parameterless constructor, create a
// reference map for it.
if (CheckForCircularReference(property.PropertyType, mapParents))
{
continue;
}
mapParents.AddLast(type);
var refMapType = typeof(DefaultCsvClassMap <>).MakeGenericType(property.PropertyType);
var refMap = (CsvClassMap)ReflectionHelper.CreateInstance(refMapType);
AutoMapInternal(refMap, false, prefixReferenceHeaders, mapParents, map.GetMaxIndex() + 1);
if (refMap.PropertyMaps.Count > 0 || refMap.ReferenceMaps.Count > 0)
{
var referenceMap = new CsvPropertyReferenceMap(property, refMap);
if (prefixReferenceHeaders)
{
referenceMap.Prefix();
}
map.ReferenceMaps.Add(referenceMap);
}
}
else
{
var propertyMap = new CsvPropertyMap(property);
propertyMap.Data.Index = map.GetMaxIndex() + 1;
if (propertyMap.Data.TypeConverter.CanConvertFrom(typeof(string)) ||
propertyMap.Data.TypeConverter.CanConvertTo(typeof(string)) && !isDefaultConverter)
{
// Only add the property map if it can be converted later on.
// If the property will use the default converter, don't add it because
// we don't want the .ToString() value to be used when auto mapping.
map.PropertyMaps.Add(propertyMap);
}
}
}
map.ReIndex(indexStart);
}
public void GetConverterForFloatTest()
{
var converter = TypeConverterFactory.GetConverter(typeof(float));
Assert.IsInstanceOfType(converter, typeof(SingleConverter));
}
public void GetConverterForDecimalTest()
{
var converter = TypeConverterFactory.GetConverter(typeof(decimal));
Assert.IsInstanceOfType(converter, typeof(DecimalConverter));
}
public void GetConverterForByteTest()
{
var converter = TypeConverterFactory.GetConverter(typeof(byte));
Assert.IsInstanceOfType(converter, typeof(ByteConverter));
}
public void GetConverterForUnknownTypeTest()
{
var converter = TypeConverterFactory.GetConverter(typeof(TestUnknownClass));
Assert.IsInstanceOfType(converter, typeof(DefaultTypeConverter));
}
protected virtual ISettings LoadSettingCore(Type settingType, int storeId = 0)
{
var allSettings = GetAllCachedSettings();
var instance = (ISettings)Activator.CreateInstance(settingType);
var prefix = settingType.Name;
foreach (var fastProp in FastProperty.GetProperties(settingType).Values)
{
var prop = fastProp.Property;
// Get properties we can read and write to
if (!prop.CanWrite)
{
continue;
}
string key = prefix + "." + prop.Name;
if (!allSettings.TryGetValue(CreateCacheKey(key, storeId), out var cachedSetting) && storeId > 0)
{
// Fallback to shared (storeId = 0)
allSettings.TryGetValue(CreateCacheKey(key, 0), out cachedSetting);
}
string setting = cachedSetting?.Value;
if (setting == null)
{
if (fastProp.IsSequenceType)
{
if ((fastProp.GetValue(instance) as IEnumerable) != null)
{
// Instance of IEnumerable<> was already created, most likely in the constructor of the settings concrete class.
// In this case we shouldn't let the EnumerableConverter create a new instance but keep this one.
continue;
}
}
else
{
continue;
}
}
var converter = TypeConverterFactory.GetConverter(prop.PropertyType);
if (converter == null || !converter.CanConvertFrom(typeof(string)))
{
continue;
}
try
{
object value = converter.ConvertFrom(setting);
// Set property
fastProp.SetValue(instance, value);
}
catch (Exception ex)
{
var msg = "Could not convert setting '{0}' to type '{1}'".FormatInvariant(key, prop.PropertyType.Name);
Logger.Error(ex, msg);
}
}
return(instance);
}
private static IEnumerable <IDbDataParameter> BindingModelPropertyToParameter(
TModel model, IDictionary <string, IDbModelPropertyStrategy> modelPropertyBindings, IEnumerable <IDbDataParameter> dbParams)
{
var parameters = new List <IDbDataParameter>(dbParams);
var converterFactory = TypeConverterFactory.GetTypeConverterFactory();
foreach (var parameter in parameters)
{
var propBindingQuery = modelPropertyBindings.Where(c => c.Key == parameter.ParameterName).ToList();
if (!propBindingQuery.Any())
{
continue;
}
var propertyBindingInfo = propBindingQuery.First();
var modelProperty = propertyBindingInfo.Value.GetPropertyInfo();
var value = modelProperty.GetValue(model, null);
if (value != null)
{
var converter = converterFactory.GetConvertType(modelProperty.PropertyType);
if (converter != null)
{
if (converter is EnumConverter)
{
parameter.Value =
(converter as EnumConverter).Convert(modelProperty.PropertyType, value);
}
else
{
parameter.Value = converter.Convert(value);
}
}
else
{
parameter.Value = value;
}
}
else
{
if (propertyBindingInfo.Value.IsAllowNull())
{
parameter.Value = DBNull.Value;
}
else
{
if (propertyBindingInfo.Value.GetPropertyInfo().PropertyType.IsValueType)
{
parameter.Value = Activator.CreateInstance(
propertyBindingInfo.Value.GetPropertyInfo().PropertyType);
}
else
{
parameter.Value = string.Empty;
}
}
}
}
return(parameters);
}
/// <summary>
/// Auto maps the given map and checks for circular references as it goes.
/// </summary>
/// <param name="map">The map to auto map.</param>
/// <param name="options">Options for auto mapping.</param>
/// <param name="mapParents">The list of parents for the map.</param>
/// <param name="indexStart">The index starting point.</param>
internal static void AutoMapInternal(CsvClassMap map, AutoMapOptions options, LinkedList <Type> mapParents, int indexStart = 0)
{
var type = map.GetType().GetTypeInfo().BaseType.GetGenericArguments()[0];
if (typeof(IEnumerable).IsAssignableFrom(type))
{
throw new CsvConfigurationException("Types that inherit IEnumerable cannot be auto mapped. " +
"Did you accidentally call GetRecord or WriteRecord which " +
"acts on a single record instead of calling GetRecords or " +
"WriteRecords which acts on a list of records?");
}
var flags = BindingFlags.Instance | BindingFlags.Public;
if (options.IncludePrivateProperties)
{
flags = flags | BindingFlags.NonPublic;
}
var members = new List <MemberInfo>();
if ((options.MemberTypes & MemberTypes.Properties) == MemberTypes.Properties)
{
var properties = type.GetProperties(flags);
members.AddRange(properties);
}
if ((options.MemberTypes & MemberTypes.Fields) == MemberTypes.Fields)
{
var fields = new List <MemberInfo>();
foreach (var field in type.GetFields(flags))
{
if (!field.GetCustomAttributes(typeof(CompilerGeneratedAttribute), false).Any())
{
fields.Add(field);
}
}
members.AddRange(fields);
}
foreach (var member in members)
{
var typeConverterType = TypeConverterFactory.GetConverter(member.MemberType()).GetType();
if (typeConverterType == typeof(EnumerableConverter))
{
// The IEnumerable converter just throws an exception so skip it.
continue;
}
var isDefaultConverter = typeConverterType == typeof(DefaultTypeConverter);
var hasDefaultConstructor = member.MemberType().GetConstructor(new Type[0]) != null;
if (isDefaultConverter && hasDefaultConstructor)
{
if (options.IgnoreReferences)
{
continue;
}
// If the type is not one covered by our type converters
// and it has a parameterless constructor, create a
// reference map for it.
if (CheckForCircularReference(member.MemberType(), mapParents))
{
continue;
}
mapParents.AddLast(type);
var refMapType = typeof(DefaultCsvClassMap <>).MakeGenericType(member.MemberType());
var refMap = (CsvClassMap)ReflectionHelper.CreateInstance(refMapType);
var refOptions = options.Copy();
refOptions.IgnoreReferences = false;
AutoMapInternal(refMap, options, mapParents, map.GetMaxIndex() + 1);
if (refMap.PropertyMaps.Count > 0 || refMap.ReferenceMaps.Count > 0)
{
var referenceMap = new CsvPropertyReferenceMap(member, refMap);
if (options.PrefixReferenceHeaders)
{
referenceMap.Prefix();
}
map.ReferenceMaps.Add(referenceMap);
}
}
else
{
var propertyMap = new CsvPropertyMap(member);
// Use global values as the starting point.
propertyMap.Data.TypeConverterOptions = TypeConverterOptions.Merge(options.TypeConverterOptionsFactory.GetOptions(member.MemberType()));
propertyMap.Data.Index = map.GetMaxIndex() + 1;
if (!isDefaultConverter)
{
// Only add the property/field map if it can be converted later on.
// If the property/field will use the default converter, don't add it because
// we don't want the .ToString() value to be used when auto mapping.
map.PropertyMaps.Add(propertyMap);
}
}
}
map.ReIndex(indexStart);
}
static WriteToCSVHelper()
{
TypeConverterFactory.AddConverter <string[]>(new EnumerableConverter <string>());
}
public AbstractReflectiveHandlerMapping()
{
TypeConverterFactory = new TypeConverterFactory();
//TargetProviderFactory = new StatelessTargetProviderFactory();
}
public void GetConverterForInt64()
{
var converter = TypeConverterFactory.CreateTypeConverter(typeof(long));
Assert.IsInstanceOfType(converter, typeof(Int64Converter));
}
public void GetConverterForInt16()
{
var converter = TypeConverterFactory.CreateTypeConverter(typeof(short));
Assert.IsInstanceOfType(converter, typeof(Int16Converter));
}
public void GetConverterForDateTime()
{
var converter = TypeConverterFactory.CreateTypeConverter(typeof(DateTime));
Assert.IsInstanceOfType(converter, typeof(DateTimeConverter));
}
public void GetConverterForEnumTest()
{
var converter = TypeConverterFactory.GetConverter(typeof(TestEnum));
Assert.IsInstanceOfType(converter, typeof(EnumConverter));
}
/// <summary>
/// Generates a <see cref="CsvClassMap"/> for the type.
/// This internal method is used to pass extra information
/// along so circular references can be checked, and
/// property maps can be auto indexed.
/// </summary>
/// <param name="type">The type to generate for the map.</param>
/// <param name="indexStart">The index that is started from.</param>
/// <param name="mapParents">The list of parents for the map.</param>
/// <returns></returns>
internal virtual CsvClassMap AutoMapInternal(Type type, int indexStart, LinkedList <Type> mapParents)
{
if (typeof(IEnumerable).IsAssignableFrom(type))
{
throw new CsvConfigurationException("Types that inhererit IEnumerable cannot be auto mapped. " +
"Did you accidentally call GetRecord or WriteRecord which " +
"acts on a single record instead of calling GetRecords or " +
"WriteRecords which acts on a list of records?");
}
if (maps[type] != null)
{
// If the map already exists, use it.
return(maps[type]);
}
#if WINRT_4_5
var properties = type.GetProperties();
#else
var properties = type.GetProperties(propertyBindingFlags);
#endif
var mapType = typeof(DefaultCsvClassMap <>).MakeGenericType(type);
var map = (CsvClassMap)ReflectionHelper.CreateInstance(mapType);
map.IndexStart = indexStart;
foreach (var property in properties)
{
var isDefaultConverter = TypeConverterFactory.GetConverter(property.PropertyType).GetType() == typeof(DefaultTypeConverter);
#if WINRT_4_5
var hasDefaultConstructor = property.PropertyType.GetTypeInfo().DeclaredConstructors.Any(c => !c.GetParameters().Any());
#else
var hasDefaultConstructor = property.PropertyType.GetConstructor(Type.EmptyTypes) != null;
#endif
if (isDefaultConverter && hasDefaultConstructor)
{
// If the type is not one covered by our type converters
// and it has a parameterless constructor, create a
// reference map for it.
if (CheckForCircularReference(property.PropertyType, mapParents))
{
continue;
}
mapParents.AddLast(type);
var refMap = AutoMapInternal(property.PropertyType, map.GetMaxIndex(), mapParents);
if (refMap.PropertyMaps.Count > 0 || refMap.ReferenceMaps.Count > 0)
{
map.ReferenceMaps.Add(new CsvPropertyReferenceMap(property, refMap));
}
}
else
{
var propertyMap = new CsvPropertyMap(property);
propertyMap.Data.Index = map.GetMaxIndex() + 1;
if (propertyMap.Data.TypeConverter.CanConvertFrom(typeof(string)) ||
propertyMap.Data.TypeConverter.CanConvertTo(typeof(string)) && !isDefaultConverter)
{
// Only add the property map if it can be converted later on.
// If the property will use the default converter, don't add it because
// we don't want the .ToString() value to be used when auto mapping.
map.PropertyMaps.Add(propertyMap);
}
}
}
return(map);
}
public void RemoveConverterForUnknownTypeTest()
{
TypeConverterFactory.RemoveConverter <TestUnknownClass>();
TypeConverterFactory.RemoveConverter(typeof(TestUnknownClass));
}
/// <summary>
/// Registers CsvHelper type converters that can allow serialization of complex types.
/// </summary>
public static void RegisterAnalysisProgramsTypeConverters()
{
// This is a manually maintained method
TypeConverterFactory.AddConverter <ISet <Point> >(new CsvSetPointConverter());
}
public void GetConverterForCharTest()
{
var converter = TypeConverterFactory.GetConverter(typeof(char));
Assert.IsInstanceOfType(converter, typeof(CharConverter));
}
/// Load settings
/// </summary>
/// <typeparam name="T">Type</typeparam>
/// <param name="storeId">Store identifier for which settigns should be loaded</param>
public virtual T LoadSetting <T>(int storeId = 0) where T : ISettings, new()
{
if (typeof(T).HasAttribute <JsonPersistAttribute>(true))
{
return(LoadSettingsJson <T>(storeId));
}
var settings = Activator.CreateInstance <T>();
foreach (var fastProp in FastProperty.GetProperties(typeof(T)).Values)
{
var prop = fastProp.Property;
// get properties we can read and write to
if (!prop.CanWrite)
{
continue;
}
var key = typeof(T).Name + "." + prop.Name;
// load by store
string setting = GetSettingByKey <string>(key, storeId: storeId, loadSharedValueIfNotFound: true);
if (setting == null)
{
if (fastProp.IsSequenceType)
{
if ((fastProp.GetValue(settings) as IEnumerable) != null)
{
// Instance of IEnumerable<> was already created, most likely in the constructor of the settings concrete class.
// In this case we shouldn't let the EnumerableConverter create a new instance but keep this one.
continue;
}
}
else
{
#region Obsolete ('EnumerableConverter' can handle this case now)
//if (prop.PropertyType.IsGenericType && prop.PropertyType.GetGenericTypeDefinition() == typeof(List<>))
//{
// // convenience: don't return null for simple list types
// var listArg = prop.PropertyType.GetGenericArguments()[0];
// object list = null;
// if (listArg == typeof(int))
// list = new List<int>();
// else if (listArg == typeof(decimal))
// list = new List<decimal>();
// else if (listArg == typeof(string))
// list = new List<string>();
// if (list != null)
// {
// fastProp.SetValue(settings, list);
// }
//}
#endregion
continue;
}
}
var converter = TypeConverterFactory.GetConverter(prop.PropertyType);
if (converter == null || !converter.CanConvertFrom(typeof(string)))
{
continue;
}
object value = converter.ConvertFrom(setting);
//set property
fastProp.SetValue(settings, value);
}
return(settings);
}
public void GetConverterForDoubleTest()
{
var converter = TypeConverterFactory.GetConverter(typeof(double));
Assert.IsInstanceOfType(converter, typeof(DoubleConverter));
}
public void GetConverterForInt32Test()
{
var converter = TypeConverterFactory.GetConverter(typeof(int));
Assert.IsInstanceOfType(converter, typeof(Int32Converter));
}
public void GetConverterForGuidTest()
{
var converter = TypeConverterFactory.GetConverter(typeof(Guid));
Assert.IsInstanceOfType(converter, typeof(GuidConverter));
}
public void GetConverterForNullableTest()
{
var converter = TypeConverterFactory.GetConverter(typeof(int?));
Assert.IsInstanceOfType(converter, typeof(NullableConverter));
}
protected virtual ISettings LoadSettingCore(Type settingType, int storeId = 0)
{
var allSettings = GetAllCachedSettings();
var instance = (ISettings)Activator.CreateInstance(settingType);
var prefix = settingType.Name;
foreach (var fastProp in FastProperty.GetProperties(settingType).Values)
{
var prop = fastProp.Property;
// Get properties we can read and write to
if (!prop.CanWrite)
{
continue;
}
string key = prefix + "." + prop.Name;
if (!allSettings.TryGetValue(CreateCacheKey(key, storeId), out var cachedSetting) && storeId > 0)
{
// // Fallback to shared (storeId = 0)
allSettings.TryGetValue(CreateCacheKey(key, 0), out cachedSetting);
}
string setting = cachedSetting?.Value;
if (setting == null)
{
if (fastProp.IsSequenceType)
{
if ((fastProp.GetValue(instance) as IEnumerable) != null)
{
// Instance of IEnumerable<> was already created, most likely in the constructor of the settings concrete class.
// In this case we shouldn't let the EnumerableConverter create a new instance but keep this one.
continue;
}
}
else
{
#region Obsolete ('EnumerableConverter' can handle this case now)
//if (prop.PropertyType.IsGenericType && prop.PropertyType.GetGenericTypeDefinition() == typeof(List<>))
//{
// // convenience: don't return null for simple list types
// var listArg = prop.PropertyType.GetGenericArguments()[0];
// object list = null;
// if (listArg == typeof(int))
// list = new List<int>();
// else if (listArg == typeof(decimal))
// list = new List<decimal>();
// else if (listArg == typeof(string))
// list = new List<string>();
// if (list != null)
// {
// fastProp.SetValue(settings, list);
// }
//}
#endregion
continue;
}
}
var converter = TypeConverterFactory.GetConverter(prop.PropertyType);
if (converter == null || !converter.CanConvertFrom(typeof(string)))
{
continue;
}
try
{
object value = converter.ConvertFrom(setting);
// Set property
fastProp.SetValue(instance, value);
}
catch (Exception ex)
{
var msg = "Could not convert setting '{0}' to type '{1}'".FormatInvariant(key, prop.PropertyType.Name);
Logger.Error(ex, msg);
}
}
return(instance);
}
public void GetConverterForStringTest()
{
var converter = TypeConverterFactory.GetConverter(typeof(string));
Assert.IsInstanceOfType(converter, typeof(StringConverter));
}
private EnumReader(IColumnReader valueReader, IColumnReader rowIndexReader)
{
_valueReader = valueReader;
_rowIndexReader = rowIndexReader;
_rowIndexToIntConverter = TypeConverterFactory.GetConverter(typeof(byte), typeof(int));
}
public void GetConverterForUInt16Test()
{
var converter = TypeConverterFactory.GetConverter(typeof(ushort));
Assert.IsInstanceOfType(converter, typeof(UInt16Converter));
}
/// <summary>
/// Writes a cell to the Excel file.
/// </summary>
/// <typeparam name="T">The type of the field.</typeparam>
/// <param name="row">Row to write the field to.</param>
/// <param name="col">Column to write the field to.</param>
/// <param name="field">The field to write.</param>
/// <param name="numberFormat">Optional number formatting string for the cell</param>
/// <param name="dateFormat">Optional DateTime formatting string for the cell</param>
/// <param name="fontStyle">Optional font style for the cell</param>
/// <param name="fontSize">Optional font size for the cell</param>
/// <param name="fontName">Optional font name for the cell</param>
public void WriteCell <T>(
int row,
int col,
T field,
string numberFormat = null,
string dateFormat = null,
FontStyle?fontStyle = null,
float?fontSize = null,
string fontName = null)
{
// Find the type conversion options
var type = typeof(T);
var converter = TypeConverterFactory.GetConverter(type);
var options = TypeConverterOptions.Merge(TypeConverterOptionsFactory.GetOptions(type, _configuration.CultureInfo));
// Set the formatting options to override the defaults
var format = numberFormat ?? dateFormat;
if (converter.AcceptsNativeType)
{
// Convert the options to Excel format
if (format != null)
{
format = XLStyle.FormatDotNetToXL(format, converter.ConvertedType, options.CultureInfo);
}
else
{
// If no formatting is provided, see if the native type requires it (mostly for DateTime)
format = converter.ExcelFormatString(options);
}
}
else
{
// Override the formatting for the formatter, and do not format the Excel cell
if (numberFormat != null)
{
options.NumberFormat = format;
}
else if (dateFormat != null)
{
options.DateFormat = format;
}
format = null;
}
// Find the default style to use for this cell based on the row and column styles
var cellStyle = _sheet.Rows[row].Style ?? _sheet.Columns[col].Style;
// Clone the style so it does not modify the entire row or column
cellStyle = cellStyle?.Clone();
// Set up cell formatting for this cell
UpdateStyle(ref cellStyle, format, fontStyle, fontSize, fontName);
// Apply the style to this cell if defined
if (cellStyle != null)
{
_sheet[row, col].Style = cellStyle;
}
// Now write the cell contents
object value;
if (converter.AcceptsNativeType)
{
value = field;
}
else
{
value = converter.ConvertToExcel(options, field);
}
var s = value as string;
if (s != null && s.StartsWith("="))
{
// Write as a formula if it starts with an equals sign
_sheet[row, col].Value = "";
_sheet[row, col].Formula = s;
}
else
{
_sheet[row, col].Value = value;
}
}
public void GetConverterForUInt64Test()
{
var converter = TypeConverterFactory.GetConverter(typeof(ulong));
Assert.IsInstanceOfType(converter, typeof(UInt64Converter));
}
