public void OpenXMLFile()
{
dao = new SOA_DataAccess();
System.Windows.Forms.OpenFileDialog dlg = new System.Windows.Forms.OpenFileDialog();
dlg.CheckFileExists = true;
dlg.Filter = "XML Files (*.xml)|*.xml|All Files(*.*)|*.*";
dlg.Multiselect = false;
//string path = dlg.FileName;
try
{
if (dlg.ShowDialog() != DialogResult.OK)
{
return;
}
FullPath = dlg.FileName;
dao.load(dlg.FileName);
SampleSOA = dao.SOADataMaster;
Helper.LoadCompanyInfoFromSoaObjectToOpen(SampleSOA, CompanyM); // assigns info extracted from XML to the Company info form
CompanyInfoVM.LoadCompanyInfo(); // copies info into local parameters to be shown in the view
ActivateItem(CompanyInfoVM);
}
catch (Exception)
{
System.Windows.Forms.MessageBox.Show("The data file is invalid!");
return;
}
}
static void Main(string[] args)
{
SOA_DataAccess dao = new SOA_DataAccess();
dao.load("http://schema.metrology.net/SOA_AC-1498_TableIV_Time Interval - Measure.xml");
Soa SampleSOA = dao.SOADataMaster;
XDocument doc = new XDocument();
SampleSOA.writeTo(doc);
}
static void Main(string[] args)
{
SOA_DataAccess dao = new SOA_DataAccess();
//dao.load("http://schema.metrology.net/SOA_AC-1498_TableIV_Time Interval - Measure.xml");
dao.load(@"D:\Dropbox\Mahdi-Çağrı\SoAEditor\Metrology.NET_Public-master\Data Files\simpleSample.xml");
Soa SampleSOA = dao.SOADataMaster;
XDocument doc = new XDocument();
SampleSOA.writeTo(doc);
}
private void openAction()
{
dao = new SOA_DataAccess();
OpenFileDialog dlg = new OpenFileDialog();
dlg.CheckFileExists = true;
dlg.Filter = "XML Files (*.xml)|*.xml|All Files(*.*)|*.*";
dlg.Multiselect = false;
try
{
if (dlg.ShowDialog() != DialogResult.OK)
{
return;
}
dao.load(dlg.FileName);
SampleSOA = dao.SOADataMaster;
AB_ID = SampleSOA.Ab_ID;
AB_logo_sign = SampleSOA.Ab_Logo_Signature;
Scope_ID = SampleSOA.Scope_ID_Number;
Criteria = SampleSOA.Criteria;
Effective_date = SampleSOA.EffectiveDate;
Expiration_date = SampleSOA.ExpirationDate;
//Statement = SampleSOA.Statement;
Name = SampleSOA.CapabilityScope.MeasuringEntity.ToString();
Location_ID = SampleSOA.CapabilityScope.Locations[0].id;
Contact_name = SampleSOA.CapabilityScope.Locations[0].ContactName;
Contact_info = SampleSOA.CapabilityScope.Locations[0].ContactInfo.ToString();
Street = SampleSOA.CapabilityScope.Locations[0].Address.Street;
City = SampleSOA.CapabilityScope.Locations[0].Address.City;
State = SampleSOA.CapabilityScope.Locations[0].Address.State;
Zip = SampleSOA.CapabilityScope.Locations[0].Address.Zip;
}
catch (Exception)
{
MessageBox.Show("The data file is invalid!");
return;
}
}
public void TestLoad()
{
SOA_DataAccess dao = new SOA_DataAccess();
OpResult op;
// An SOA_DataAccess object can be loaded from a string, stream, local file, or remote file
// uncomment next 5 lines if using local files
//string binDebugPath = new Uri(System.IO.Path.GetDirectoryName(System.Reflection.Assembly.GetExecutingAssembly().GetName().CodeBase)).LocalPath;
//string DataFilesPath = binDebugPath.Replace(@"\Source\SOA_DataAccessLib\UnitTestLoad\bin\Debug", @"\Data Files\");
//UomDataSource.DatabasePath = DataFilesPath + "UOM_Database.xml";
//op = dao.load( DataFilesPath + "SOASample_TwoParameter_SixCases_TwoAssertions_ComplexFormula.xml");
//Assert.IsTrue(op.Success, "local files test " + op.Error);
//uncomment next 2 lines if using remote files
op = dao.load("http://schema.metrology.net/SOASample_TwoParameter_SixCases_TwoAssertions_ComplexFormula.xml");
Assert.IsTrue(op.Success, "remote file test " + op.Error);
// Once the SOA_DataAccess object is loaded, the Object Model is accessed via the SOA_DataAccess object's SOADataMaster property
Soa SampleSOA = dao.SOADataMaster;
// This will often be the first query performed on an SOA (Does it deal at all with a measurement quantity that is of interest?)
bool supportsResultType = SampleSOA.ResultTypes.Contains("voltage");
// Looping through a SOA's ProcessTypes looking for known ProcessType Names will also be very common search refinement
// A ProcessType specifies the measurement quantity sourced or measured as a result of performing the ProcessType,
// as well as a minimal list of input parameters required.
var process_name1 = SampleSOA.CapabilityScope.Activities[0].ProcessTypes[0].ProcessType.Name;
Assert.AreEqual <string>("Measure.Voltage.AC", process_name1, "Failed MtcTechnique MtcProcessType");
// Looping through a SOA's Technique Names will also be very common search refinement
// A Technique is a specific implementation of a ProcessType.
var technique_name1 = SampleSOA.CapabilityScope.Activities[0].Techniques[0].Technique.Name;
Assert.AreEqual <string>("Measure.Voltage.AC.LowVoltage", technique_name1, "Failed TemplateTechnique Name");
// Once a Technique is found, the numeric bounds of its results can be found
// In this case, the Technique is verified to have one result, the result is voltage,
// and it is within a range starting at 0 volts and ending at 110 volts.
var Technique = SampleSOA.CapabilityScope.Activities[0].Techniques[0].Technique;
Assert.IsTrue(Technique.ProcessType.ResultTypes.Contains("voltage"), "Failed Result Types");
Assert.IsTrue(Technique.ProcessType.ResultTypes.Count == 1, "Failed Result Types");
var result_range = SampleSOA.CapabilityScope.Activities[0].Techniques[0].Technique.ResultRanges[0];
var result_start = result_range.Start;
var result_end = result_range.End;
Assert.AreEqual <string>("at", result_start.test, "Failed Result Start Type");
Assert.AreEqual <double>(0.0, (double)result_start.BaseValue, "Failed Result Start Value");
Assert.AreEqual <string>("at", result_end.test, "Failed Result End Type");
Assert.AreEqual <double>(110, (double)result_end.BaseValue, "Failed Result End Value");
// A template is the primary structure that holds the atomic CMC informational elements in an SOA.
// Once a template is selected a great deal of information is made readily available.
var template = SampleSOA.CapabilityScope.Activities[0].CMCs[0].Templates[0];
// a CMC Function Name provides a linkage between the template a CMC Uncertainty Function contained in a Technique
string functionName = template.CMCUncertaintyFunctions[0].name;
Assert.AreEqual <string>("Measure.Voltage.AC.LowVoltage.Uncertainty.Certified", functionName, "Failed CMCFunction Name");
// A CMC Uncertainty Function is used to calculate a CMC uncertainty value at the value of a specific test point.
// Units of Measurement for all values in the function are unambiguously specified by specifying the measurement quantity
// of each value, in a CMC Parameter definition for each value. These definitions are contained within the Technique.
// All values utilize the base Unit of Measurement for the value's specified measurement quantity
string functionExpression = template.getCMCUncertaintyFunctionExpression(functionName);
Assert.AreEqual <string>("k_nominal * nominal + k_range * range", functionExpression, "Failed CMCFunction By Name");
// "k_nominal", "nominal", "k_range", and "range" are the function Symbols.
// These symbols come directly from parsing a CMC Uncertainty Function's text.
// Once the values for all of these symbols have been set, the function may be evaluated.
var functionSymbols = template.getCMCUncertaintyFunctionSymbols(functionName);
Assert.AreEqual <int>(4, functionSymbols.Count, "Failed Function Symbols");
// "frequency" and "nominal" are the Range Variables.
// The values of these variables will be used in the selection a Range subordinate to this template.
// The values from these variables must come from a source external to the SOA.
var rangeVariables = template.getCMCFunctionRangeVariables(functionName);
Assert.AreEqual <int>(2, rangeVariables.Count, "Failed Distinct Range Variables");
// "nominal" and "range" are the function variables.
// The values from these variables must come from a source external to the SOA.
// These variables should also appear in function symbols.
// The function symbols with same name must have their values set before the function may be evaluated.
var functionVariables = template.getCMCFunctionVariables(functionName);
Assert.AreEqual <int>(2, functionVariables.Count, "Failed Distinct Function Variables");
// "k_nominal" and "k_range" are the function constants.
// The values for these constants are contained in the SOA in a Range Element that is subordinate to this template.
// These constants should also appear in function symbols.
// The function symbols with same name must have their values set before the function may be evaluated.
var functionConstants = template.getCMCFunctionConstants(functionName);
Assert.AreEqual <int>(2, functionConstants.Count, "Failed Distinct Function Constants");
// "Resolution" and "Connection" are the Assertion Names
// The values of these assertions will be used in the selection a Range subordinate to this template
var assertionNames = template.getCMCFunctionAssertionNames(functionName);
Assert.AreEqual <int>(2, assertionNames.Count, "Failed Distinct AssertionNames");
Assert.IsTrue(assertionNames.Contains("Resolution") && assertionNames.Contains("Connection"), "Failed Get AssertionNames");
// "2 Wire" and "4 Wire" are the set of expected values for the Assertion named "Connection".
var assertionValues2 = template.getCMCFunctionAssertionValues(functionName, "Connection");
Assert.AreEqual <int>(2, assertionValues2.Count, "Failed Distinct Assertion Values");
Assert.IsTrue(assertionValues2.Contains("2 Wire") && assertionValues2.Contains("4 Wire"), "Failed Get AssertionValues By Assertion Name");
// "6-1/2 digit", "5-1/2 digit", and "4-1/2 digit" are the set expected values for the Assertion named "Resolution".
var assertionValues1 = template.getCMCFunctionAssertionValues(functionName, "Resolution");
Assert.AreEqual <int>(3, assertionValues1.Count, "Failed Distinct Assertion Values");
// Once a range that is subordinate to this template is selected, the values of Constants may be retrieved from the range.
var range1 = template.CMCUncertaintyFunctions[0].Cases[0].Ranges[0].Ranges[0];
var constantValue1 = range1.ConstantValues[0];
Assert.AreEqual <string>("k_nominal", constantValue1.const_parameter_name, "Failed ConstantValue Const_parameter_name");
Assert.AreEqual <string>("0.0001", constantValue1.ValueString, "Failed Get ConstantValue Value");
Assert.AreEqual <string>("ratio", constantValue1.Quantity, "Failed Get ConstantValue Quantity");
Assert.AreEqual <string>("percent", constantValue1.uom_alternative, "Failed Get ConstantValue UOM Alternative");
// All numeric uses of values are performed in the base Unit Of Measurement for the value's measurement quantity
// A values's BaseValue property contains this numeric value of a Value in its base Unit Of Measurement.
// It is derived with knowledge of the Value's uom_alternative property.
// In this case the Value's quantity is "ratio" and its uom_alternative is "percent".
// Therefor the BaseValue = the specified value (0.0001) divided by 100, which is 0.000001
double baseValue = (double)constantValue1.BaseValue;
Assert.AreEqual <double>(0.000001, baseValue, "Failed Converting a ConstantValue's Value To its Base UOM Value");
// Once a Range has been selected, a loop such as the one that follows can set the values of the CMCFunction's symbols that are constants.
// Whereas, setting the values of the CMCFunction's symbols that are variables requires custom logic,
// because the values must come from an external source.
foreach (var constant in range1.ConstantValues)
{
template.setCMCFunctionSymbol(functionName, constant.const_parameter_name, (double)constant.BaseValue);
}
template.setCMCFunctionSymbol(functionName, "nominal", 2.5);
template.setCMCFunctionSymbol(functionName, "range", 10);
// With all the functions values now set, the function may be evaluated.
double uncertainty = (double)template.evaluateCMCFunction(functionName);
Assert.AreEqual <double>(2.25E-05, uncertainty, "Failed Uncertainty Calculation");
// test setters
// Value
// constantValue1.Quantity = "voltage-sinusoidal";
constantValue1.symbol = "%";
constantValue1.ValueString = "1";
string presentation = constantValue1.HTML_Presentation;
baseValue = (double)constantValue1.BaseValue;
Assert.AreEqual <double>(0.01, baseValue, "Failed Converting a ConstantValue's Value To its Base UOM Value");
// change uom_alternative
// changing uom_alternative should change Value not BaseValue
constantValue1.uom_alternative = "";
baseValue = (double)constantValue1.BaseValue;
Assert.AreEqual <double>(0.01, baseValue, "Failed Converting a ConstantValue's Value To its Base UOM Value");
double value = (double)constantValue1.Value;
Assert.AreEqual <double>(0.01, value, "Failed Converting a ConstantValue's Value To its Base UOM Value");
constantValue1.ValueString = "1";
baseValue = (double)constantValue1.BaseValue;
Assert.AreEqual <double>(1, baseValue, "Failed Converting a ConstantValue's Value To its Base UOM Value");
}
