private ResolvedTradeParameterMetadata(ResolvedTrade trade, string label)
{
JodaBeanUtils.notNull(trade, "trade");
JodaBeanUtils.notEmpty(label, "label");
this.trade = trade;
this.label = label;
}
//-------------------------------------------------------------------------
// Check market data computation
public virtual void market_data()
{
RatesCurveGroupDefinition group = GROUPS_SYN_EUR;
RatesProvider multicurveTsLarge = MULTICURVE_INPUT_EUR_TSEMPTY.toBuilder().timeSeries(TS_LARGE).build();
MarketData madTsEmpty = CALIBRATOR_SYNTHETIC.marketData(group, MULTICURVE_INPUT_EUR_TSEMPTY, REF_DATA);
MarketData madTsLarge = CALIBRATOR_SYNTHETIC.marketData(group, multicurveTsLarge, REF_DATA);
assertEquals(madTsEmpty.ValuationDate, VALUATION_DATE);
foreach (CurveDefinition entry in group.CurveDefinitions)
{
ImmutableList <CurveNode> nodes = entry.Nodes;
foreach (CurveNode node in nodes)
{
ResolvedTrade tradeTsEmpty = node.resolvedTrade(1d, madTsEmpty, REF_DATA);
double mqTsEmpty = MQ_MEASURES.value(tradeTsEmpty, MULTICURVE_INPUT_EUR_TSEMPTY);
assertEquals(mqTsEmpty, (double?)madTsEmpty.getValue(node.requirements().GetEnumerator().next()), TOLERANCE_MQ);
ResolvedTrade tradeTsLarge = node.resolvedTrade(1d, madTsLarge, REF_DATA);
double mqTsLarge = MQ_MEASURES.value(tradeTsLarge, multicurveTsLarge);
assertEquals(mqTsLarge, (double?)madTsLarge.getValue(node.requirements().GetEnumerator().next()), TOLERANCE_MQ);
// Market Quote for Fixed v ibor swaps should have changed with the fixing
if ((tradeTsLarge is ResolvedSwapTrade) && (((ResolvedSwapTrade)tradeTsLarge)).Product.getLegs(SwapLegType.IBOR).size() == 1)
{
assertTrue(Math.Abs(mqTsEmpty - mqTsLarge) > TOLERANCE_MQ);
}
}
}
assertEquals(madTsEmpty.TimeSeriesIds, ImmutableSet.of());
assertEquals(madTsLarge.TimeSeriesIds, ImmutableSet.of(IndexQuoteId.of(EUR_EURIBOR_3M), IndexQuoteId.of(EUR_EURIBOR_6M)));
}
// extract CDS index trades from credit curve
private ImmutableList <ResolvedCdsIndexTrade> getBucketCdsIndex(ResolvedCdsIndex product, CreditRatesProvider ratesProvider)
{
CreditDiscountFactors creditCurve = ratesProvider.survivalProbabilities(product.CdsIndexId, product.Currency).SurvivalProbabilities;
int nNodes = creditCurve.ParameterCount;
ImmutableList.Builder <ResolvedCdsIndexTrade> builder = ImmutableList.builder();
for (int i = 0; i < nNodes; ++i)
{
ParameterMetadata metadata = creditCurve.getParameterMetadata(i);
ArgChecker.isTrue(metadata is ResolvedTradeParameterMetadata, "ParameterMetadata of credit curve must be ResolvedTradeParameterMetadata");
ResolvedTradeParameterMetadata tradeMetadata = (ResolvedTradeParameterMetadata)metadata;
ResolvedTrade trade = tradeMetadata.Trade;
ArgChecker.isTrue(trade is ResolvedCdsIndexTrade, "ResolvedTrade must be ResolvedCdsIndexTrade");
builder.add((ResolvedCdsIndexTrade)trade);
}
return(builder.build());
}
public override Builder set(string propertyName, object newValue)
{
switch (propertyName.GetHashCode())
{
case 110621028: // trade
this.trade_Renamed = (ResolvedTrade)newValue;
break;
case 102727412: // label
this.label_Renamed = (string)newValue;
break;
default:
throw new NoSuchElementException("Unknown property: " + propertyName);
}
return(this);
}
// Check synthetic calibration in the case of existing time-series with fixing on the valuation date
public virtual void calibrate_ts_vd()
{
SyntheticRatesCurveCalibrator calibratorDefault = SyntheticRatesCurveCalibrator.standard();
MarketData mad = calibratorDefault.marketData(GROUPS_SYN_EUR, MULTICURVE_INPUT_EUR_TSLARGE, REF_DATA);
RatesProvider multicurveSyn = CALIBRATOR_SYNTHETIC.calibrate(GROUPS_SYN_EUR, MULTICURVE_INPUT_EUR_TSLARGE, REF_DATA);
foreach (CurveDefinition entry in GROUPS_SYN_EUR.CurveDefinitions)
{
ImmutableList <CurveNode> nodes = entry.Nodes;
foreach (CurveNode node in nodes)
{
ResolvedTrade trade = node.resolvedTrade(1d, mad, REF_DATA);
double mqIn = MQ_MEASURES.value(trade, MULTICURVE_INPUT_EUR_TSLARGE);
double mqSy = MQ_MEASURES.value(trade, multicurveSyn);
assertEquals(mqIn, mqSy, TOLERANCE_MQ);
}
}
}
// Check synthetic calibration in case no time-series is present
public virtual void calibrate_ts_empty()
{
MarketData mad = CALIBRATOR_SYNTHETIC.marketData(GROUPS_SYN_EUR, MULTICURVE_INPUT_EUR_TSEMPTY, REF_DATA);
RatesProvider multicurveSyn = CALIBRATOR_SYNTHETIC.calibrate(GROUPS_SYN_EUR, MULTICURVE_INPUT_EUR_TSEMPTY, REF_DATA);
foreach (CurveDefinition entry in GROUPS_SYN_EUR.CurveDefinitions)
{
ImmutableList <CurveNode> nodes = entry.Nodes;
foreach (CurveNode node in nodes)
{
ResolvedTrade trade = node.resolvedTrade(1d, mad, REF_DATA);
double mqIn = MQ_MEASURES.value(trade, MULTICURVE_INPUT_EUR_TSEMPTY);
double mqSy = MQ_MEASURES.value(trade, multicurveSyn);
assertEquals(mqIn, mqSy, TOLERANCE_MQ);
}
}
assertEquals(mad.TimeSeriesIds, ImmutableSet.of());
}
/// <summary>
/// Constructs the synthetic market data from an existing rates provider and the configuration of the new curves.
/// </summary>
/// <param name="group"> the curve group definition for the synthetic curves and instruments </param>
/// <param name="inputProvider"> the input rates provider </param>
/// <param name="refData"> the reference data, used to resolve the trades </param>
/// <returns> the market data </returns>
public ImmutableMarketData marketData(RatesCurveGroupDefinition group, RatesProvider inputProvider, ReferenceData refData)
{
// Retrieve the set of required indices and the list of required currencies
ISet <Index> indicesRequired = new HashSet <Index>();
IList <Currency> ccyRequired = new List <Currency>();
foreach (RatesCurveGroupEntry entry in group.Entries)
{
indicesRequired.addAll(entry.Indices);
((IList <Currency>)ccyRequired).AddRange(entry.DiscountCurrencies);
}
// Retrieve the required time series if present in the original provider
IDictionary <IndexQuoteId, LocalDateDoubleTimeSeries> ts = new Dictionary <IndexQuoteId, LocalDateDoubleTimeSeries>();
foreach (Index idx in Sets.intersection(inputProvider.TimeSeriesIndices, indicesRequired))
{
ts[IndexQuoteId.of(idx)] = inputProvider.timeSeries(idx);
}
LocalDate valuationDate = inputProvider.ValuationDate;
ImmutableList <CurveDefinition> curveGroups = group.CurveDefinitions;
// Create fake market quotes of 0, only to be able to generate trades
//JAVA TO C# CONVERTER WARNING: Java wildcard generics have no direct equivalent in .NET:
//ORIGINAL LINE: java.util.Map<com.opengamma.strata.data.MarketDataId<?>, double> mapId0 = new java.util.HashMap<>();
IDictionary <MarketDataId <object>, double> mapId0 = new Dictionary <MarketDataId <object>, double>();
foreach (CurveDefinition entry in curveGroups)
{
ImmutableList <CurveNode> nodes = entry.Nodes;
for (int i = 0; i < nodes.size(); i++)
{
//JAVA TO C# CONVERTER WARNING: Java wildcard generics have no direct equivalent in .NET:
//ORIGINAL LINE: for (com.opengamma.strata.data.MarketDataId<?> key : nodes.get(i).requirements())
foreach (MarketDataId <object> key in nodes.get(i).requirements())
{
mapId0[key] = 0.0d;
}
}
}
ImmutableMarketData marketQuotes0 = ImmutableMarketData.of(valuationDate, mapId0);
// Generate market quotes from the trades
//JAVA TO C# CONVERTER WARNING: Java wildcard generics have no direct equivalent in .NET:
//ORIGINAL LINE: java.util.Map<com.opengamma.strata.data.MarketDataId<?>, Object> mapIdSy = new java.util.HashMap<>();
IDictionary <MarketDataId <object>, object> mapIdSy = new Dictionary <MarketDataId <object>, object>();
foreach (CurveDefinition entry in curveGroups)
{
ImmutableList <CurveNode> nodes = entry.Nodes;
foreach (CurveNode node in nodes)
{
ResolvedTrade trade = node.resolvedTrade(1d, marketQuotes0, refData);
double mq = measures.value(trade, inputProvider);
//JAVA TO C# CONVERTER WARNING: Java wildcard generics have no direct equivalent in .NET:
//ORIGINAL LINE: com.opengamma.strata.data.MarketDataId<?> k = node.requirements().iterator().next();
MarketDataId <object> k = node.requirements().GetEnumerator().next();
mapIdSy[k] = mq;
}
}
// Generate quotes for FX pairs. The first currency is arbitrarily selected as starting point.
// The crosses are automatically generated by the MarketDataFxRateProvider used in calibration.
for (int loopccy = 1; loopccy < ccyRequired.Count; loopccy++)
{
CurrencyPair ccyPair = CurrencyPair.of(ccyRequired[0], ccyRequired[loopccy]);
FxRateId fxId = FxRateId.of(ccyPair);
mapIdSy[fxId] = FxRate.of(ccyPair, inputProvider.fxRate(ccyPair));
}
return(ImmutableMarketData.builder(valuationDate).addValueMap(mapIdSy).addTimeSeriesMap(ts).build());
}
//-------------------------------------------------------------------------
/// <summary>
/// Obtains an instance specifying the trade and label.
/// </summary>
/// <param name="trade"> the resolved trade </param>
/// <param name="label"> the label </param>
/// <returns> the instance </returns>
public static ResolvedTradeParameterMetadata of(ResolvedTrade trade, string label)
{
return(new ResolvedTradeParameterMetadata(trade, label));
}
//-----------------------------------------------------------------------
/// <summary>
/// Sets the trade that describes the parameter. </summary>
/// <param name="trade"> the new value, not null </param>
/// <returns> this, for chaining, not null </returns>
public Builder trade(ResolvedTrade trade)
{
JodaBeanUtils.notNull(trade, "trade");
this.trade_Renamed = trade;
return(this);
}
/// <summary>
/// Restricted copy constructor. </summary>
/// <param name="beanToCopy"> the bean to copy from, not null </param>
internal Builder(ResolvedTradeParameterMetadata beanToCopy)
{
this.trade_Renamed = beanToCopy.Trade;
this.label_Renamed = beanToCopy.Label;
}
