} //end constructor
/// <summary> This method takes in integer values for the year and month and day
/// and performs validations, it then sets the value in the object
/// formatted as an HL7 Time Stamp value with year&month&day precision (YYYYMMDD).
///
/// </summary>
public virtual void setDatePrecision(int yr, int mnth, int dy)
{
try
{
//create date object if there isn't one
if (dt == null)
{
dt = new CommonDT();
}
//set the value of the date object to the input date value
dt.setYearMonthDayPrecision(yr, mnth, dy);
//clear the time value object
tm = null;
}
//end try
catch (DataTypeException e)
{
throw e;
}
//end catch
catch (System.Exception e)
{
throw new DataTypeException(e);
} //end catch
} //end method
} //end method
/// <summary> This method takes in integer values for the year, month, day, hour, minute, seconds,
/// and fractional seconds (going to the tenthousandths precision).
/// The method performs validations and then sets the value in the object formatted as an
/// HL7 time value with a precision that starts from the year and goes down to the tenthousandths
/// of a second (YYYYMMDDHHMMSS.SSSS).
/// The Gmt Offset will not be effected.
/// Note: all of the precisions from tenths down to
/// tenthousandths of a second are optional. If the precision goes below tenthousandths
/// of a second then the second value will be rounded to the nearest tenthousandths of a second.
/// </summary>
public virtual void setDateSecondPrecision(int yr, int mnth, int dy, int hr, int min, float sec)
{
try
{
//set the value of the date object to the input date value
this.setDatePrecision(yr, mnth, dy);
//create new time object is there isn't one
if (tm == null)
{
tm = new CommonTM();
}
//set the value of the time object to the second precision with the input values
tm.setHourMinSecondPrecision(hr, min, sec);
}
//end try
catch (DataTypeException e)
{
throw e;
}
//end catch
catch (System.Exception e)
{
throw new DataTypeException(e);
} //end catch
} //end method
} //end method
/// <summary> Returns a string value representing the input Gregorian Calendar object in
/// an Hl7 Time Format.
/// </summary>
public static System.String toHl7TMFormat(System.Globalization.GregorianCalendar cal)
{
System.String val = "";
try
{
//set the input cal object so that it can report errors
//on it's value
int calHour = SupportClass.CalendarManager.manager.Get(cal, SupportClass.CalendarManager.HOUR_OF_DAY);
int calMin = SupportClass.CalendarManager.manager.Get(cal, SupportClass.CalendarManager.MINUTE);
int calSec = SupportClass.CalendarManager.manager.Get(cal, SupportClass.CalendarManager.SECOND);
int calMilli = SupportClass.CalendarManager.manager.Get(cal, SupportClass.CalendarManager.MILLISECOND);
//the inputs seconds and milli seconds should be combined into a float type
float fractSec = calMilli / 1000F;
float calSecFloat = calSec + fractSec;
TimeSpan utcSpan = TimeZone.CurrentTimeZone.GetUtcOffset(DateTime.Now);
int dstOffset = TimeZone.CurrentTimeZone.IsDaylightSavingTime(DateTime.Now) ? -1 : 0;
int calOffset = utcSpan.Hours * 100 + utcSpan.Minutes + dstOffset;
//Note the input's Offset value is in milliseconds, we must convert it to
//a 4 digit integer in the HL7 Offset format.
int offSetSignInt;
if (calOffset < 0)
{
offSetSignInt = -1;
}
else
{
offSetSignInt = 1;
}
//get the absolute value of the gmtOffSet
int absGmtOffSet = System.Math.Abs(calOffset);
int gmtOffSetHours = absGmtOffSet / (3600 * 1000);
int gmtOffSetMin = (absGmtOffSet / 60000) % (60);
//reset calOffset
calOffset = ((gmtOffSetHours * 100) + gmtOffSetMin) * offSetSignInt;
//Create an object of the TS class and populate it with the above values
//then return the HL7 string value from the object
CommonTM tm = new CommonTM();
tm.setHourMinSecondPrecision(calHour, calMin, calSecFloat);
tm.Offset = calOffset;
val = tm.Value;
}
// end try
catch (DataTypeException e)
{
throw e;
}
//end catch
catch (System.Exception e)
{
throw new DataTypeException(e);
} //end catch
return(val);
} //end method