public static void Main()
{
// Create and initialize a new CollectionBase.
Int16Collection myCollectionBase = new Int16Collection();
// Add elements to the collection.
myCollectionBase.Add((Int16)1);
myCollectionBase.Add((Int16)2);
myCollectionBase.Add((Int16)3);
myCollectionBase.Add((Int16)5);
myCollectionBase.Add((Int16)7);
// <Snippet2>
// Get the ICollection interface from the CollectionBase
// derived class.
ICollection myCollection = myCollectionBase;
lock (myCollection.SyncRoot)
{
foreach (object item in myCollection)
{
// Insert your code here.
}
}
// </Snippet2>
}
public static void Main()
{
// Create and initialize a new CollectionBase.
Int16Collection myI16 = new Int16Collection();
// Add elements to the collection.
myI16.Add((Int16)1);
myI16.Add((Int16)2);
myI16.Add((Int16)3);
myI16.Add((Int16)5);
myI16.Add((Int16)7);
// Display the contents of the collection using foreach. This is the preferred method.
Console.WriteLine("Contents of the collection (using foreach):");
PrintValues1(myI16);
// Display the contents of the collection using the enumerator.
Console.WriteLine("Contents of the collection (using enumerator):");
PrintValues2(myI16);
// Display the contents of the collection using the Count property and the Item property.
Console.WriteLine("Initial contents of the collection (using Count and Item):");
PrintIndexAndValues(myI16);
// Search the collection with Contains and IndexOf.
Console.WriteLine("Contains 3: {0}", myI16.Contains(3));
Console.WriteLine("2 is at index {0}.", myI16.IndexOf(2));
Console.WriteLine();
// Insert an element into the collection at index 3.
myI16.Insert(3, (Int16)13);
Console.WriteLine("Contents of the collection after inserting at index 3:");
PrintIndexAndValues(myI16);
// Get and set an element using the index.
myI16[4] = 123;
Console.WriteLine("Contents of the collection after setting the element at index 4 to 123:");
PrintIndexAndValues(myI16);
// Remove an element from the collection.
myI16.Remove((Int16)2);
// Display the contents of the collection using the Count property and the Item property.
Console.WriteLine("Contents of the collection after removing the element 2:");
PrintIndexAndValues(myI16);
}
static void Main(string[] args)
{
Int16Collection myI16 = new Int16Collection();
myI16.Add((Int16)1);
//加入2,3,5,7作为元素
Console.WriteLine("Initial contents of the collection:");
PrintIndexAndValues(myI16);
Console.WriteLine("Contains 3:{0}", myI16.Contains(3));
Console.WriteLine("2 is at index {0}.", myI16.IndexOf(2));
Console.WriteLine();
myI16.Insert(3, (Int16)13);
Console.WriteLine("Contents of the collection after inserting at index 3:");
PrintIndexAndValues(myI16);
myI16[4] = 123;
Console.WriteLine("Contents of the collection after setting the element at index 4 to 123:");
PrintIndexAndValues(myI16);
myI16.Remove((Int16)2);
Console.WriteLine("Contents of the collection after removing the element 2:");
for (int i = 0; i < myI16.Count; i++)
{
Console.WriteLine(" [{0}]: {1}", myI16[i]);
}
}
/// <summary>
/// Reads the TOU Schedule from the meter into a TOUSchedule object
/// </summary>
/// <returns>The TOU Schedule object.</returns>
// Revision History
// MM/DD/YY who Version Issue# Description
// -------- --- ------- ------ ---------------------------------------
// 01/04/07 RCG 8.00.04 Made more generic and promoted from CENTRON_AMI
// 04/13/07 RCG 8.00.31 2919 Adding support for Output events.
// 03/10/08 KRC 1.50.02 Adding Ability to create TOU Schedule from EDL file
// 12/03/10 DEO 9.70.13 Promoted from ANSIDevice
public static CTOUSchedule ReadCENTRON2TOUSchedule(TOUConfig TOUConfigTable, CalendarConfig CalendarConfigTable)
{
Int16Collection NormalDays;
Int16Collection HolidayDays;
ANSITOUSchedule TOUSchedule = new ANSITOUSchedule();
TOUConfig.TOU_Season CurrentSeason;
int iNextEventCounter = 0;
int iPatternID = 0;
try
{
// First set up the typical week so that we know which day corresponds to which daytype
if (TOUConfigTable.NumberOfSupportedSeasons > 0)
{
CurrentSeason = TOUConfigTable.Seasons[0];
// We have to assume that the Typical week is that same for all seasons. NOTE: The Day to Daytype is 1 based
// so we need to subtract 1
TOUSchedule.TypicalWeek[(int)eTypicalDay.SUNDAY] = TOUSchedule.NormalDays[CurrentSeason.TypicalSunday];
TOUSchedule.TypicalWeek[(int)eTypicalDay.MONDAY] = TOUSchedule.NormalDays[CurrentSeason.TypicalMonday];
TOUSchedule.TypicalWeek[(int)eTypicalDay.TUESDAY] = TOUSchedule.NormalDays[CurrentSeason.TypicalTuesday];
TOUSchedule.TypicalWeek[(int)eTypicalDay.WEDNESDAY] = TOUSchedule.NormalDays[CurrentSeason.TypicalWednesday];
TOUSchedule.TypicalWeek[(int)eTypicalDay.THURSDAY] = TOUSchedule.NormalDays[CurrentSeason.TypicalThursday];
TOUSchedule.TypicalWeek[(int)eTypicalDay.FRIDAY] = TOUSchedule.NormalDays[CurrentSeason.TypicalFriday];
TOUSchedule.TypicalWeek[(int)eTypicalDay.SATURDAY] = TOUSchedule.NormalDays[CurrentSeason.TypicalSaturday];
}
for (int iSeasonCounter = 0; iSeasonCounter < TOUConfigTable.NumberOfSupportedSeasons; iSeasonCounter++)
{
// Get the Season that we are dealing with.
CurrentSeason = TOUConfigTable.Seasons[iSeasonCounter];
NormalDays = new Int16Collection();
HolidayDays = new Int16Collection();
for (int iDayTypeCounter = 0; iDayTypeCounter < TOUConfigTable.DayTypesPerSeason; iDayTypeCounter++)
{
CSwitchPointCollection SPColl = new CSwitchPointCollection();
for (int iEventCounter = 0; iEventCounter < TOUConfigTable.EventsPerDayType; iEventCounter++)
{
// Get the Day Event
TOUConfig.DayEvent DayEvent = CurrentSeason.TimeOfDayEvents[iDayTypeCounter, iEventCounter];
ushort usEvent = DayEvent.Event;
if (usEvent != (ushort)TOUConfig.DayEvent.TOUEvent.NoMoreChanges)
{
if (IsRateChangeEvent(usEvent) == true)
{
// We have a valid Event, so proceed with createing a SwitchPoint
int iHour = (int)DayEvent.Hour;
int iMinute = (int)DayEvent.Minute;
int iStartTime = (iHour * 60) + iMinute;
int iEndTime = 24 * 60;
iNextEventCounter = iEventCounter + 1;
while (iNextEventCounter < TOUConfigTable.EventsPerDayType)
{
TOUConfig.DayEvent NextDayEvent = CurrentSeason.TimeOfDayEvents[iDayTypeCounter, iNextEventCounter];
if (IsRateChangeEvent(NextDayEvent.Event) == true)
{
iHour = (int)NextDayEvent.Hour;
iMinute = (int)NextDayEvent.Minute;
iEndTime = (iHour * 60) + iMinute;
// We need to stop looking once we find the next rate change event.
break;
}
iNextEventCounter++;
}
// Add the rate change event
int iRateIndex = GetRateIndex(usEvent);
// Finally figure out the Switchpoint type
CSwitchPoint SchedSwitchPoint = new CSwitchPoint(iStartTime, iEndTime,
iRateIndex, eSwitchPointType.RATE);
SPColl.Add(SchedSwitchPoint);
}
else if (IsOutputOnEvent(usEvent) == true)
{
// We have a valid output on Event, so proceed with createing a SwitchPoint
int iHour = (int)DayEvent.Hour;
int iMinute = (int)DayEvent.Minute;
int iStartTime = (iHour * 60) + iMinute;
int iEndTime = 24 * 60;
int iOutputIndex = GetOutputIndex(usEvent);
// Find the OutputOff event for this rate if one exists
iNextEventCounter = iEventCounter + 1;
while (iNextEventCounter < TOUConfigTable.EventsPerDayType)
{
TOUConfig.DayEvent NextDayEvent = CurrentSeason.TimeOfDayEvents[iDayTypeCounter, iNextEventCounter];
if (IsOutputOffEvent(NextDayEvent.Event) == true)
{
// Check to see if the index matches
if (iOutputIndex == GetOutputIndex(NextDayEvent.Event))
{
iHour = (int)NextDayEvent.Hour;
iMinute = (int)NextDayEvent.Minute;
iEndTime = (iHour * 60) + iMinute;
// We need to stop looking once we find the next rate change event.
break;
}
}
iNextEventCounter++;
}
// Finally figure out the Switchpoint type
CSwitchPoint SchedSwitchPoint = new CSwitchPoint(iStartTime, iEndTime,
iOutputIndex, eSwitchPointType.OUTPUT);
SPColl.Add(SchedSwitchPoint);
}
// We do not need to handle the OutputOff event since they get handled by the OutputOn check
}
}
// Since we have no way of knowing whether the the patterns for the current season are related
// to the patterns in other seasons we need to add the patterns regardless of whether or not it
// has already been duplicated in another season
// To keep the patterns unique we need to add in an offset for the season number
iPatternID = iDayTypeCounter + iSeasonCounter * TOUConfigTable.DayTypesPerSeason;
CPattern SchedPattern = new CPattern(iPatternID, "Pattern " + iDayTypeCounter.ToString(CultureInfo.InvariantCulture),
SPColl);
NormalDays.Add((short)iPatternID);
// The Day to Daytype conversions are 1's based so subract 1
if (iDayTypeCounter == CurrentSeason.TypicalHoliday)
{
// This Day Type is a holiday
HolidayDays.Add((short)iPatternID);
}
TOUSchedule.Patterns.Add(SchedPattern);
}
// Add the season to the schedule
CSeason SchedSeason = new CSeason(iSeasonCounter + 1, "Season " + (iSeasonCounter + 1).ToString(CultureInfo.InvariantCulture), NormalDays, HolidayDays);
TOUSchedule.Seasons.Add(SchedSeason);
}
// Now deal with the Calendar part of the config
TOUSchedule.TOUID = CalendarConfigTable.CalendarID;
for (int iYearCounter = 0; iYearCounter < CalendarConfigTable.MaxYears; iYearCounter++)
{
CEventCollection EventColl = new CEventCollection();
CalendarEvent[] CalEvents =
CalendarConfigTable.Years[iYearCounter].Events;
int iYear = 2000 + (int)CalendarConfigTable.Years[iYearCounter].Year;
// Start at Index 2, which is the first non-DST Event
for (int iDayEvent = CalendarConfigTable.DSTEventsPerYear;
iDayEvent < CalendarConfigTable.EventsPerYear; iDayEvent++)
{
eEventType eType = CalendarConfigTable.GetEventType(CalEvents[iDayEvent].Type);
int iEventIndex = iDayEvent;
if (eEventType.NO_EVENT != eType)
{
// It is a valid event
DateTime dtDate = new DateTime(iYear, CalEvents[iDayEvent].Month + 1,
CalEvents[iDayEvent].Day + 1);
// Determine the index for the event
if (eType == eEventType.SEASON)
{
iEventIndex = CalEvents[iDayEvent].Type - (int)CalendarEvent.CalendarEventType.SEASON1 - 1;
}
else if (eType == eEventType.HOLIDAY)
{
// Determine which Holiday day type to use
// Currently the ANSI devices only support 1 holiday day type so this is always 0
iEventIndex = 0;
}
CEvent Event = new CEvent(dtDate, eType,
iEventIndex, "Event " + iDayEvent.ToString(CultureInfo.InvariantCulture));
EventColl.Add(Event);
}
}
CYear Year = new CYear(iYear, EventColl);
TOUSchedule.Years.Add(Year);
// It may be possible that some of the years are not filled in so we need to
// make sure that the year is valid by checking to see if the next year is
// greater than the current
if (iYearCounter + 1 < CalendarConfigTable.MaxYears &&
(int)CalendarConfigTable.Years[iYearCounter + 1].Year + 2000 < iYear)
{
break;
}
}
}
catch (Exception e)
{
throw (e);
}
return(TOUSchedule);
}
/// <summary>
/// Reads a short array from the stream.
/// </summary>
public Int16Collection ReadInt16Array(string fieldName)
{
bool isNil = false;
Int16Collection values = new Int16Collection();
if (BeginField(fieldName, true, out isNil))
{
PushNamespace(Namespaces.OpcUaXsd);
while (MoveToElement("Int16"))
{
values.Add(ReadInt16("Int16"));
}
// check the length.
if (m_context.MaxArrayLength > 0 && m_context.MaxArrayLength < values.Count)
{
throw new ServiceResultException(StatusCodes.BadEncodingLimitsExceeded);
}
PopNamespace();
EndField(fieldName);
return values;
}
if (isNil)
{
return null;
}
return values;
}
/// <summary>
/// Reads a short array from the stream.
/// </summary>
public Int16Collection ReadInt16Array(string fieldName)
{
int length = ReadArrayLength();
if (length == -1)
{
return null;
}
Int16Collection values = new Int16Collection(length);
for (int ii = 0; ii < length; ii++)
{
values.Add(ReadInt16(null));
}
return values;
}
/// <summary>
/// Reads a short array from the stream.
/// </summary>
public Int16Collection ReadInt16Array(string fieldName)
{
var values = new Int16Collection();
List<object> token = null;
if (!ReadArrayField(fieldName, out token))
{
return values;
}
for (int ii = 0; ii < token.Count; ii++)
{
try
{
m_stack.Push(token[ii]);
values.Add(ReadInt16(null));
}
finally
{
m_stack.Pop();
}
}
return values;
}
