} // static Exercise method
private static void RealWorldTests ( StreamWriter pswReport )
{
const string MSG_BEGIN = @"{0}Begin RealWorldTests{0}";
const string MSG_DONE = @"{0}RealWorldTests Done{0}";
const string MSG_FLAG_STACK = @" New s_aenmStackTraceDisp value = {0} ({1,3})";
const string MSG_FLAG_SUBSYSTEM = @" New s_aenmAppSubsystem value = {0} ({1,3})";
const string MSG_FLAG_EVENTLOGGING = @" New s_aenmLoggingState value = {0} ({1,3})";
const string MSG_OPTION_FLAGS_DISP = @" Test Case {0,3} OptionFlags {1,3} = {2,3}";
const string MSG_OPTIONS_ANTE = @"Ante";
const string MSG_OPTIONS_POST = @"Post";
const string REPORT_HEADINGS = "StackTraceDisposition\tOutputDestination\tEventLogging\tInitialFlags\tFinalFlags";
const string REPORT_DETAIL_LINE = "{0,3}\t{1,3}\t{2,3}\t{3,3}\t{4,3}";
Console.WriteLine (
MSG_BEGIN ,
Environment.NewLine );
pswReport.WriteLine ( REPORT_HEADINGS );
OutputOptions enmFlags = OutputOptions.Method | OutputOptions.Source;
uint uintCase = StandardConstants.ZERO;
foreach ( OutputOptions enmStackDisp in s_aenmStackTraceDisp )
{ // Stack tracing is either ON or OFF.
Console.WriteLine (
MSG_FLAG_STACK ,
enmStackDisp ,
( byte ) enmStackDisp );
foreach ( OutputOptions enmSubsystem in s_aenmAppSubsystem )
{ // ExceptionLogger.Subsystem collapses to one of only three values.
Console.WriteLine (
MSG_FLAG_SUBSYSTEM ,
enmSubsystem ,
( byte ) enmSubsystem );
foreach ( OutputOptions enmEventLogUsage in s_aenmLoggingState )
{ // Event logging is either ON or OFF.
Console.WriteLine (
MSG_FLAG_EVENTLOGGING ,
enmEventLogUsage ,
( byte ) enmEventLogUsage );
// ----------------------------------------------------
// From this point forward, the code is identical with
// the test code that brought this matter to my
// attention.
// ----------------------------------------------------
Console.WriteLine (
MSG_OPTION_FLAGS_DISP ,
++uintCase ,
MSG_OPTIONS_ANTE ,
enmFlags );
OutputOptions enmInitialFlags = enmFlags;
BitArray32 b32Flags = new BitArray32 ( ( UInt32 ) enmFlags );
if ( ( enmSubsystem & OutputOptions.StandardError ) == OutputOptions.StandardError )
b32Flags.BitOn ( ( int ) BitArray32.BitNumber ( ( UInt32 ) OutputOptions.StandardError ) );
else
b32Flags.BitOff ( ( int ) BitArray32.BitNumber ( ( UInt32 ) OutputOptions.StandardError ) );
if ( ( enmStackDisp & OutputOptions.Stack ) == OutputOptions.Stack )
b32Flags.BitOn ( ( int ) BitArray32.BitNumber ( ( UInt32 ) OutputOptions.Stack ) );
else
b32Flags.BitOff ( ( int ) BitArray32.BitNumber ( ( UInt32 ) OutputOptions.Stack ) );
if ( ( enmEventLogUsage & OutputOptions.EventLog ) == OutputOptions.EventLog )
b32Flags.BitOn ( ( int ) BitArray32.BitNumber ( ( UInt32 ) OutputOptions.EventLog ) );
else
b32Flags.BitOff ( ( int ) BitArray32.BitNumber ( ( UInt32 ) OutputOptions.EventLog ) );
enmFlags = ( OutputOptions ) ( ( UInt32 ) b32Flags );
Console.WriteLine (
MSG_OPTION_FLAGS_DISP ,
uintCase ,
MSG_OPTIONS_POST ,
enmFlags );
pswReport.WriteLine (
REPORT_DETAIL_LINE ,
new object [ ]
{
( byte ) enmStackDisp , // Token 0 = StackTraceDisposition
( byte ) enmSubsystem , // Token 1 = OutputDestination
( byte ) enmEventLogUsage , // Token 2 = EventLogging
( byte ) enmInitialFlags , // Token 3 = InitialFlags
( byte ) enmFlags // Token 4 = FinalFlags
} );
} // foreach ( OutputOptions enmStackDisp in s_aenmStackTraceDisp )
} // foreach ( OutputOptions enmSubsystem in s_aenmAppSubsystem )
} // foreach ( OutputOptions enmEventLogUsage in s_aenmLoggingState )
Console.WriteLine (
MSG_DONE ,
Environment.NewLine );
} // private static void RealWorldTests
}; // s_aint64Examples
public static void Exercise ( string pstrReportFileName )
{
const string HEXADECIMAL_8 = @"X8";
const string BITMASK_FORMAT_STRING = "G";
int intTestNbr = TestBit32ArrayToStringOverload ( );
TestBitArrayRulers ( ref intTestNbr );
TestBitMaskAndRuler ( ref intTestNbr );
Console.WriteLine ( @"Begin BitArray32TestStand Exercises" );
Console.WriteLine ( @"{1} Test # {0} - Display public constants.{1}" , ++intTestNbr , Environment.NewLine );
Console.WriteLine (
" Bit 1 = {0} (Individual bits: {1})" , // Format control string
BitArray32.BIT_01.ToString ( HEXADECIMAL_8 ) , // Format Item 0 = Bit as hexadecimal integer
BitArray32.FormatIntegerAsBitArray ( // Format Item 1 = Bit as array of bits
BitArray32.BIT_01 , // Specify the same bit, raw.
BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) ); // This should be passing a value of 1.
Console.WriteLine ( @" Bit 2 = {0} (Individual bits: {1})" , BitArray32.BIT_02.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_02 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 3 = {0} (Individual bits: {1})" , BitArray32.BIT_03.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_03 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 4 = {0} (Individual bits: {1})" , BitArray32.BIT_04.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_04 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 5 = {0} (Individual bits: {1})" , BitArray32.BIT_05.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_05 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 6 = {0} (Individual bits: {1})" , BitArray32.BIT_06.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_06 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 7 = {0} (Individual bits: {1})" , BitArray32.BIT_07.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_07 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 8 = {0} (Individual bits: {1})" , BitArray32.BIT_08.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_08 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 9 = {0} (Individual bits: {1})" , BitArray32.BIT_09.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_09 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 10 = {0} (Individual bits: {1})" , BitArray32.BIT_10.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_10 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 11 = {0} (Individual bits: {1})" , BitArray32.BIT_11.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_11 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 12 = {0} (Individual bits: {1})" , BitArray32.BIT_12.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_12 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 13 = {0} (Individual bits: {1})" , BitArray32.BIT_13.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_13 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 14 = {0} (Individual bits: {1})" , BitArray32.BIT_14.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_14 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 15 = {0} (Individual bits: {1})" , BitArray32.BIT_15.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_15 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 16 = {0} (Individual bits: {1})" , BitArray32.BIT_16.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_16 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 17 = {0} (Individual bits: {1})" , BitArray32.BIT_17.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_17 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 18 = {0} (Individual bits: {1})" , BitArray32.BIT_18.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_18 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 19 = {0} (Individual bits: {1})" , BitArray32.BIT_19.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_19 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 20 = {0} (Individual bits: {1})" , BitArray32.BIT_20.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_20 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 21 = {0} (Individual bits: {1})" , BitArray32.BIT_21.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_21 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 22 = {0} (Individual bits: {1})" , BitArray32.BIT_22.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_22 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 23 = {0} (Individual bits: {1})" , BitArray32.BIT_23.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_23 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 24 = {0} (Individual bits: {1})" , BitArray32.BIT_24.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_24 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 25 = {0} (Individual bits: {1})" , BitArray32.BIT_25.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_25 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 26 = {0} (Individual bits: {1})" , BitArray32.BIT_26.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_26 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 27 = {0} (Individual bits: {1})" , BitArray32.BIT_27.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_27 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 28 = {0} (Individual bits: {1})" , BitArray32.BIT_28.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_28 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 29 = {0} (Individual bits: {1})" , BitArray32.BIT_29.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_29 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 30 = {0} (Individual bits: {1})" , BitArray32.BIT_30.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_30 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 31 = {0} (Individual bits: {1})" , BitArray32.BIT_31.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_31 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" Bit 32 = {0} (Individual bits: {1})" , BitArray32.BIT_32.ToString ( HEXADECIMAL_8 ) , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_32 , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" BIT_NBR_MIN = {0} (Individual bits: {1})" , BitArray32.BIT_NBR_MIN , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_NBR_MIN , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" BIT_NBR_MAX = {0} (Individual bits: {1})" , BitArray32.BIT_NBR_MAX , BitArray32.FormatIntegerAsBitArray ( BitArray32.BIT_NBR_MAX , BitArray32.MINIMUM_BIT_GROUP_IN_FORMAT ) );
Console.WriteLine ( @" OFF = {0}" , BitArray32.OFF );
Console.WriteLine ( @" ON = {0}" , BitArray32.ON );
Console.WriteLine ( @"{1} Test # {0} - Default Constructor.{1}" , ++intTestNbr , Environment.NewLine );
BitArray32 Mask1 = new BitArray32 ( );
Console.WriteLine ( @" Initial value of default BitArray32 = {0} (Individual bits: {1})" , Mask1.ToString ( BITMASK_FORMAT_STRING ) , Mask1.ToString ( "B4" ) );
Mask1.BitOn ( 10 );
Console.WriteLine ( @" Bit 10 was turned ON. Mask1 = {0} (Individual bits: {1})" , Mask1.ToString ( BITMASK_FORMAT_STRING ) , Mask1.ToString ( "B4" ) );
Console.WriteLine ( @"{1} Test # {0} - First overloaded Constructor.{1}" , ++intTestNbr , Environment.NewLine );
BitArray32 Mask2 = new BitArray32 ( BitArray32.BIT_07 );
// ----------------------------------------------------------------
// The following statement writes a two-line ruler above the area
// where the next three statements will display bit masks. Since
// this group prints beneath the ruler, it eschews the spacing in
// favor of the compact format that aligns correctly with the
// ruler.
// ----------------------------------------------------------------
Console.WriteLine (
"{2} {0}{2} {1}" ,
BitArray32.GetRulerTens (
BitArray32.BitCount.Count32 ,
BitArray32.BitDisplayOrder.HighBitToLowBit ) ,
BitArray32.GetRulerUnits (
BitArray32.BitCount.Count32 ,
BitArray32.BitDisplayOrder.HighBitToLowBit ) ,
Environment.NewLine );
Console.WriteLine ( @" Initial value of Overloaded BitArray32 = {0} (Individual bits: {1})" , Mask2.ToString ( BITMASK_FORMAT_STRING ) , Mask2.ToString ( "H" ) );
Mask2.BitOn ( 10 );
Console.WriteLine ( @" Bit 10 was turned ON. Mask2 = {0} (Individual bits: {1})" , Mask2.ToString ( BITMASK_FORMAT_STRING ) , Mask2.ToString ( "H" ) );
Mask2.BitOff ( 7 );
Console.WriteLine ( @" Bit 7 was turned OFF. Mask2 = {0} (Individual bits: {1})" , Mask2.ToString ( BITMASK_FORMAT_STRING ) , Mask2.ToString ( "H" ) );
if ( Mask2.IsBitOn ( 10 ) )
Console.WriteLine ( @" Bit 10 is ON" );
else
Console.WriteLine ( @" Bit 10 is OFF" );
if ( Mask2.IsBitOn ( 7 ) )
Console.WriteLine ( @" Bit 7 is ON" );
else
Console.WriteLine ( @" Bit 7 is OFF" );
if ( Mask2.IsBitOff ( 10 ) )
Console.WriteLine ( @" Bit 10 is OFF" );
else
Console.WriteLine ( @" Bit 10 is NOT OFF" );
if ( Mask2.IsBitOff ( 7 ) )
Console.WriteLine ( @" Bit 7 is OFF" );
else
Console.WriteLine ( @" Bit 7 is NOT OFF" );
StreamWriter swReport = null;
try
{
swReport = new StreamWriter (
pstrReportFileName ,
StandardConstants.FILE_OUT_CREATE ,
System.Text.Encoding.ASCII );
RealWorldTests ( swReport );
}
catch ( Exception ex )
{
Console.WriteLine ( ex.Message );
}
finally
{ // Clean up the StreamWriter.
if ( swReport != null )
{
swReport.Close ( );
swReport.Dispose ( );
swReport = null;
} // if ( swReport != null )
} // One way or another, the StreamWriter got cleaned up.
Console.WriteLine (
"{0}End BitArray32TestStand Exercises{0}" ,
Environment.NewLine );
} // static Exercise method