text:
using System;
using System.Runtime.InteropServices;
using System.Runtime.CompilerServices;

struct SingleByte
{
	public byte Byte;

	public static SingleByte Get()
	{
		return new SingleByte { Byte = 42 };
	}

	public bool Equals(SingleByte other)
	{
		return Byte == 42 && Byte == other.Byte;
	}
}

struct SingleLong
{
	public ulong Long;

	public static SingleLong Get()
	{
		return new SingleLong { Long = 0xfeedfaceabadf00d };
	}

	public bool Equals(SingleLong other)
	{
		return Long == other.Long && Long == 0xfeedfaceabadf00d;
	}
}

struct SingleFloat
{
	public float Float;

	public static SingleFloat Get()
	{
		return new SingleFloat { Float = 3.14159f };
	}

	public bool Equals(SingleFloat other)
	{
		return Float == other.Float;
	}
}

struct SingleDouble
{
	public double Double;

	public static SingleDouble Get()
	{
		return new SingleDouble { Double = 3.14159d };
	}

	public bool Equals(SingleDouble other)
	{
		return Double == other.Double && Double == 3.14159d;
	}
}

struct ByteAndFloat
{
	public byte Byte;
	public float Float;

	public static ByteAndFloat Get()
	{
		return new ByteAndFloat { Byte = 42, Float = 3.14159f };
	}

	public bool Equals(ByteAndFloat other)
	{
		return Byte == other.Byte && Float == other.Float &&
				Byte == 42 && Float == 3.14159f;
	}
}

struct FloatAndByte
{
	public float Float;
	public byte Byte;

	public static FloatAndByte Get()
	{
		return new FloatAndByte { Byte = 42, Float = 3.14159f };
	}

	public bool Equals(FloatAndByte other)
	{
		return Byte == other.Byte && Float == other.Float &&
				Byte == 42 && Float == 3.14159f;
	}
}

struct LongAndFloat
{
	public ulong Long;
	public float Float;

	public static LongAndFloat Get()
	{
		return new LongAndFloat { Long = 0xfeedfaceabadf00d, Float = 3.14159f };
	}

	public bool Equals(LongAndFloat other)
	{
		return Long == other.Long && Float == other.Float &&
				Long == 0xfeedfaceabadf00d && Float == 3.14159f;
	}
}

struct ByteAndDouble
{
	public byte Byte;
	public double Double;

	public static ByteAndDouble Get()
	{
		return new ByteAndDouble { Byte = 42, Double = 3.14159d };
	}

	public bool Equals(ByteAndDouble other)
	{
		return Byte == other.Byte && Double == other.Double;
	}
}

struct DoubleAndByte
{
	public double Double;
	public byte Byte;

	public static DoubleAndByte Get()
	{
		return new DoubleAndByte { Byte = 42, Double = 3.14159d };
	}

	public bool Equals(DoubleAndByte other)
	{
		return Byte == other.Byte && Double == other.Double;
	}
}

unsafe struct PointerAndByte
{
	public void* Pointer;
	public byte Byte;

	public static PointerAndByte Get()
	{
		byte unused;
		return new PointerAndByte { Pointer = &unused, Byte = 42 };
	}

	public bool Equals(PointerAndByte other)
	{
		return Pointer == other.Pointer && Byte == other.Byte;
	}
}

unsafe struct ByteAndPointer
{
	public byte Byte;
	public void* Pointer;

	public static ByteAndPointer Get()
	{
		byte unused;
		return new ByteAndPointer { Pointer = &unused, Byte = 42 };
	}

	public bool Equals(ByteAndPointer other)
	{
		return Pointer == other.Pointer && Byte == other.Byte;
	}
}

unsafe struct ByteFloatAndPointer
{
	public byte Byte;
	public float Float;
	public void* Pointer;

	public static ByteFloatAndPointer Get()
	{
		byte unused;
		return new ByteFloatAndPointer { Pointer = &unused, Float = 3.14159f, Byte = 42 };
	}

	public bool Equals(ByteFloatAndPointer other)
	{
		return Pointer == other.Pointer && Float == other.Float && Byte == other.Byte;
	}

}

unsafe struct PointerFloatAndByte
{
	public void* Pointer;
	public float Float;
	public byte Byte;

	public static PointerFloatAndByte Get()
	{
		byte unused;
		return new PointerFloatAndByte { Pointer = &unused, Float = 3.14159f, Byte = 42 };
	}

	public bool Equals(PointerFloatAndByte other)
	{
		return Pointer == other.Pointer && Float == other.Float && Byte == other.Byte;
	}
}

struct ShortIntFloatIntPtr
{
	public short Short;
	public int Int;
	public float Float;
	public IntPtr Pointer;

	public static ShortIntFloatIntPtr Get()
	{
		IntPtr unused = new IntPtr(42);
		return new ShortIntFloatIntPtr { Short = 10, Int = 11, Float = 3.14f, Pointer = unused };
	}

	public bool Equals(ShortIntFloatIntPtr other)
	{
		return Short == other.Short && Int == other.Int && Float == other.Float && Pointer == other.Pointer;
	}
}

struct TwoLongs
{
	public ulong Long1;
	public ulong Long2;

	public static TwoLongs Get()
	{
		return new TwoLongs { Long1 = 0xb01dfaceddebac1e, Long2 = 0xfeedfaceabadf00d };
	}

	public bool Equals(TwoLongs other)
	{
		return Long1 == other.Long1 && Long2 == other.Long2;
	}
}

struct TwoFloats
{
	public float Float1;
	public float Float2;

	public static TwoFloats Get()
	{
		return new TwoFloats { Float1 = 3.14159f, Float2 = 2.71828f };
	}

	public bool Equals(TwoFloats other)
	{
		return Float1 == other.Float1 && Float2 == other.Float2;
	}
}

struct TwoDoubles
{
	public double Double1;
	public double Double2;

	public static TwoDoubles Get()
	{
		return new TwoDoubles { Double1 = 3.14159d, Double2 = 2.71828d };
	}

	public bool Equals(TwoDoubles other)
	{
		return Double1 == other.Double1 && Double2 == other.Double2;
	}
}

struct FourLongs
{
	public ulong Long1;
	public ulong Long2;
	public ulong Long3;
	public ulong Long4;

	public static FourLongs Get()
	{
		return new FourLongs { Long1 = 0xb01dfaceddebac1e, Long2 = 0xfeedfaceabadf00d, Long3 = 0xbeeff00fdeadcafe, Long4 = 0xabadf001ea75fee7 };
	}

	public bool Equals(FourLongs other)
	{
		return Long1 == other.Long1 && Long2 == other.Long2 && Long3 == other.Long3 && Long4 == other.Long4;
	}
}

struct FourDoubles
{
	public double Double1;
	public double Double2;
	public double Double3;
	public double Double4;

	public static FourDoubles Get()
	{
		return new FourDoubles { Double1 = 3.14159d, Double2 = 2.71828d, Double3 = 1.61803d, Double4 = 0.69314d };
	}

	public bool Equals(FourDoubles other)
	{
		return Double1 == other.Double1 && Double2 == other.Double2 && Double3 == other.Double3 && Double4 == other.Double4;
	}
}

unsafe struct InlineArray1
{
	public fixed byte Array[16];

	public static InlineArray1 Get()
	{
		var val = new InlineArray1();
		for (int i = 0; i < 16; i++)
		{
			val.Array[i] = (byte)(i + 1);
		}

		return val;
	}

	public bool Equals(InlineArray1 other)
	{
		fixed (byte* arr = Array)
		{
			for (int i = 0; i < 16; i++)
			{
				if (arr[i] != other.Array[i])
				{
					return false;
				}
			}
		}

		return true;
	}
}

unsafe struct InlineArray2
{
	public fixed float Array[4];

	public static InlineArray2 Get()
	{
		var val = new InlineArray2();
		for (int i = 0; i < 4; i++)
		{
			val.Array[i] = (float)(i + 1);
		}

		return val;
	}

	public bool Equals(InlineArray2 other)
	{
		fixed (float* arr = Array)
		{
			for (int i = 0; i < 4; i++)
			{
				if (arr[i] != other.Array[i])
				{
					return false;
				}
			}
		}

		return true;
	}
}

unsafe struct InlineArray3
{
	public fixed float Array[3];

	public static InlineArray3 Get()
	{
		var val = new InlineArray3();
		for (int i = 0; i < 3; i++)
		{
			val.Array[i] = (float)(i + 1);
		}

		return val;
	}

	public bool Equals(InlineArray3 other)
	{
		fixed (float* arr = Array)
		{
			for (int i = 0; i < 3; i++)
			{
				if (arr[i] != other.Array[i])
				{
					return false;
				}
			}
		}

		return true;
	}
}

unsafe struct InlineArray4
{
	public fixed ushort Array[5];

	public static InlineArray4 Get()
	{
		var val = new InlineArray4();
		for (int i = 0; i < 5; i++)
		{
			val.Array[i] = (ushort)(i + 1);
		}

		return val;
	}

	public bool Equals(InlineArray4 other)
	{
		fixed (ushort* arr = Array)
		{
			for (int i = 0; i < 5; i++)
			{
				if (arr[i] != other.Array[i])
				{
					return false;
				}
			}
		}

		return true;
	}
}

unsafe struct InlineArray5
{
	public fixed byte Array[9];

	public static InlineArray5 Get()
	{
		var val = new InlineArray5();
		for (int i = 0; i < 9; i++)
		{
			val.Array[i] = (byte)(i + 1);
		}

		return val;
	}

	public bool Equals(InlineArray5 other)
	{
		fixed (byte* arr = Array)
		{
			for (int i = 0; i < 9; i++)
			{
				if (arr[i] != other.Array[i])
				{
					return false;
				}
			}
		}

		return true;
	}
}

unsafe struct InlineArray6
{
	public fixed double Array[1];

	public static InlineArray6 Get()
	{
		var val = new InlineArray6();
		for (int i = 0; i < 1; i++)
		{
			val.Array[i] = (double)(i + 1);
		}

		return val;
	}

	public bool Equals(InlineArray6 other)
	{
		fixed (double* arr = Array)
		{
			for (int i = 0; i < 1; i++)
			{
				if (arr[i] != other.Array[i])
				{
					return false;
				}
			}
		}

		return true;
	}
}

struct Nested1
{
	public LongAndFloat Field1;
	public LongAndFloat Field2;

	public static Nested1 Get()
	{
		return new Nested1
		{
			Field1 = new LongAndFloat { Long = 0xfeedfaceabadf00d, Float = 3.14159f },
			Field2 = new LongAndFloat { Long = 0xbeeff00fdeadcafe, Float = 2.71928f }
		};
	}

	public bool Equals(Nested1 other)
	{
		return Field1.Equals(other.Field1) && Field2.Long == other.Field2.Long && Field2.Float == other.Field2.Float;
	}
}

struct Nested2
{
	public ByteAndFloat Field1;
	public FloatAndByte Field2;

	public static Nested2 Get()
	{
		return new Nested2
		{
			Field1 = new ByteAndFloat { Byte = 42, Float = 3.14159f },
			Field2 = new FloatAndByte { Byte = 24, Float = 2.71928f }
		};
	}

	public bool Equals(Nested2 other)
	{
		return Field1.Equals(other.Field1) && Field2.Byte == other.Field2.Byte && Field2.Float == other.Field2.Float;
	}
}

unsafe struct Nested3
{
	public void* Field1;
	public FloatAndByte Field2;

	public static Nested3 Get()
	{
		byte unused;
		return new Nested3 { Field1 = &unused, Field2 = FloatAndByte.Get() };
	}

	public bool Equals(Nested3 other)
	{
		return Field1 == other.Field1 && Field2.Equals(other.Field2);
	}
}

struct Nested4
{
	public InlineArray5 Field1;
	public ushort Field2;

	public static Nested4 Get()
	{
		return new Nested4 { Field1 = InlineArray5.Get(), Field2 = 0xcafe };
	}

	public bool Equals(Nested4 other)
	{
		return Field1.Equals(other.Field1) && Field2 == other.Field2;
	}
}

struct Nested5
{
	public ushort Field1;
	public InlineArray5 Field2;

	public static Nested5 Get()
	{
		return new Nested5 { Field2 = InlineArray5.Get(), Field1 = 0xcafe };
	}

	public bool Equals(Nested5 other)
	{
		return Field1 == other.Field1 && Field2.Equals(other.Field2);
	}
}

struct Nested6
{
	public InlineArray4 Field1;
	public uint Field2;

	public static Nested6 Get()
	{
		return new Nested6 { Field1 = InlineArray4.Get(), Field2 = 0xcafef00d };
	}

	public bool Equals(Nested6 other)
	{
		return Field1.Equals(other.Field1) && Field2 == other.Field2;
	}
}

struct Nested7
{
	public uint Field1;
	public InlineArray4 Field2;

	public static Nested7 Get()
	{
		return new Nested7 { Field2 = InlineArray4.Get(), Field1 = 0xcafef00d };
	}

	public bool Equals(Nested7 other)
	{
		return Field1 == other.Field1 && Field2.Equals(other.Field2);
	}
}

struct Nested8
{
	public InlineArray4 Field1;
	public ushort Field2;

	public static Nested8 Get()
	{
		return new Nested8 { Field1 = InlineArray4.Get(), Field2 = 0xcafe };
	}

	public bool Equals(Nested8 other)
	{
		return Field1.Equals(other.Field1) && Field2 == other.Field2;
	}
}

struct Nested9
{
	public ushort Field1;
	public InlineArray4 Field2;

	public static Nested9 Get()
	{
		return new Nested9 { Field2 = InlineArray4.Get(), Field1 = 0xcafe };
	}

	public bool Equals(Nested9 other)
	{
		return Field1 == other.Field1 && Field2.Equals(other.Field2);
	}
}

public static partial class StructABI
{
	[DllImport("StructABILib")]
	static extern SingleByte EchoSingleByte(SingleByte value);

	[DllImport("StructABILib")]
	static extern SingleLong EchoSingleLong(SingleLong value);

	[DllImport("StructABILib")]
	static extern SingleFloat EchoSingleFloat(SingleFloat value);

	[DllImport("StructABILib")]
	static extern SingleDouble EchoSingleDouble(SingleDouble value);

	[DllImport("StructABILib")]
	static extern ByteAndFloat EchoByteAndFloat(ByteAndFloat value);

	[DllImport("StructABILib")]
	static extern LongAndFloat EchoLongAndFloat(LongAndFloat value);

	[DllImport("StructABILib")]
	static extern ByteAndDouble EchoByteAndDouble(ByteAndDouble value);

	[DllImport("StructABILib")]
	static extern DoubleAndByte EchoDoubleAndByte(DoubleAndByte value);

	[DllImport("StructABILib")]
	static extern PointerAndByte EchoPointerAndByte(PointerAndByte value);

	[DllImport("StructABILib")]
	static extern ByteAndPointer EchoByteAndPointer(ByteAndPointer value);

	[DllImport("StructABILib")]
	static extern ByteFloatAndPointer EchoByteFloatAndPointer(ByteFloatAndPointer value);

	[DllImport("StructABILib")]
	static extern PointerFloatAndByte EchoPointerFloatAndByte(PointerFloatAndByte value);

	[DllImport("StructABILib")]
	static extern ShortIntFloatIntPtr EchoShortIntFloatIntPtr(ShortIntFloatIntPtr value);

	[DllImport("StructABILib")]
	static extern TwoLongs EchoTwoLongs(TwoLongs value);

	[DllImport("StructABILib")]
	static extern TwoFloats EchoTwoFloats(TwoFloats value);

	[DllImport("StructABILib")]
	static extern TwoDoubles EchoTwoDoubles(TwoDoubles value);

	[DllImport("StructABILib")]
	static extern FourLongs EchoFourLongs(FourLongs value);

	[DllImport("StructABILib")]
	static extern FourDoubles EchoFourDoubles(FourDoubles value);

	[DllImport("StructABILib")]
	static extern InlineArray1 EchoInlineArray1(InlineArray1 value);

	[DllImport("StructABILib")]
	static extern InlineArray2 EchoInlineArray2(InlineArray2 value);

	[DllImport("StructABILib")]
	static extern InlineArray3 EchoInlineArray3(InlineArray3 value);

	[DllImport("StructABILib")]
	static extern InlineArray4 EchoInlineArray4(InlineArray4 value);

	[DllImport("StructABILib")]
	static extern InlineArray5 EchoInlineArray5(InlineArray5 value);

	[DllImport("StructABILib")]
	static extern InlineArray6 EchoInlineArray6(InlineArray6 value);

	[DllImport("StructABILib")]
	static extern Nested1 EchoNested1(Nested1 value);

	[DllImport("StructABILib")]
	static extern Nested2 EchoNested2(Nested2 value);

	[DllImport("StructABILib")]
	static extern Nested3 EchoNested3(Nested3 value);

	[DllImport("StructABILib")]
	static extern Nested4 EchoNested4(Nested4 value);

	[DllImport("StructABILib")]
	static extern Nested5 EchoNested5(Nested5 value);

	[DllImport("StructABILib")]
	static extern Nested6 EchoNested6(Nested6 value);

	[DllImport("StructABILib")]
	static extern Nested7 EchoNested7(Nested7 value);

	[DllImport("StructABILib")]
	static extern Nested8 EchoNested8(Nested8 value);

	[DllImport("StructABILib")]
	static extern Nested9 EchoNested9(Nested9 value);

	[DllImport("StructABILib")]
	static extern TwoLongs NotEnoughRegistersSysV1(ulong a, ulong b, ulong c, ulong d, ulong e, ulong f, TwoLongs value);

	[DllImport("StructABILib")]
	static extern TwoLongs NotEnoughRegistersSysV2(ulong a, ulong b, ulong c, ulong d, ulong e, TwoLongs value);

	[DllImport("StructABILib")]
	static extern DoubleAndByte NotEnoughRegistersSysV3(ulong a, ulong b, ulong c, ulong d, ulong e, ulong f, DoubleAndByte value);

	[DllImport("StructABILib")]
	static extern TwoDoubles NotEnoughRegistersSysV4(double a, double b, double c, double d, double e, double f, double g, double h, TwoDoubles value);

	[DllImport("StructABILib")]
	static extern TwoDoubles NotEnoughRegistersSysV5(double a, double b, double c, double d, double e, double f, double g, TwoDoubles value);

	[DllImport("StructABILib")]
	static extern DoubleAndByte NotEnoughRegistersSysV6(double a, double b, double c, double d, double e, double f, double g, double h, DoubleAndByte value);

	[DllImport("StructABILib")]
	static extern TwoDoubles EnoughRegistersSysV1(ulong a, ulong b, ulong c, ulong d, ulong e, ulong f, TwoDoubles value);

	[DllImport("StructABILib")]
	static extern DoubleAndByte EnoughRegistersSysV2(ulong a, ulong b, ulong c, ulong d, ulong e, DoubleAndByte value);

	[DllImport("StructABILib")]
	static extern TwoLongs EnoughRegistersSysV3(double a, double b, double c, double d, double e, double f, double g, double h, TwoLongs value);

	[DllImport("StructABILib")]
	static extern DoubleAndByte EnoughRegistersSysV4(double a, double b, double c, double d, double e, double f, double g, DoubleAndByte value);

	////////////////////////////////////////////////////////////////////////////
	// Managed echo tests.
	////////////////////////////////////////////////////////////////////////////

	[MethodImpl(MethodImplOptions.NoInlining)]
	static SingleByte EchoSingleByteManaged(SingleByte value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static SingleLong EchoSingleLongManaged(SingleLong value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static SingleFloat EchoSingleFloatManaged(SingleFloat value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static SingleDouble EchoSingleDoubleManaged(SingleDouble value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static ByteAndFloat EchoByteAndFloatManaged(ByteAndFloat value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static LongAndFloat EchoLongAndFloatManaged(LongAndFloat value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static ByteAndDouble EchoByteAndDoubleManaged(ByteAndDouble value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static DoubleAndByte EchoDoubleAndByteManaged(DoubleAndByte value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static PointerAndByte EchoPointerAndByteManaged(PointerAndByte value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static ByteAndPointer EchoByteAndPointerManaged(ByteAndPointer value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static ByteFloatAndPointer EchoByteFloatAndPointerManaged(ByteFloatAndPointer value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static PointerFloatAndByte EchoPointerFloatAndByteManaged(PointerFloatAndByte value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static ShortIntFloatIntPtr EchoShortIntFloatIntPtrManaged(ShortIntFloatIntPtr value)
	{

		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static TwoLongs EchoTwoLongsManaged(TwoLongs value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static TwoFloats EchoTwoFloatsManaged(TwoFloats value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static TwoDoubles EchoTwoDoublesManaged(TwoDoubles value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static FourLongs EchoFourLongsManaged(FourLongs value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static FourDoubles EchoFourDoublesManaged(FourDoubles value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static InlineArray1 EchoInlineArray1Managed(InlineArray1 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static InlineArray2 EchoInlineArray2Managed(InlineArray2 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static InlineArray3 EchoInlineArray3Managed(InlineArray3 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static InlineArray4 EchoInlineArray4Managed(InlineArray4 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static InlineArray5 EchoInlineArray5Managed(InlineArray5 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static InlineArray6 EchoInlineArray6Managed(InlineArray6 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static Nested1 EchoNested1Managed(Nested1 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static Nested2 EchoNested2Managed(Nested2 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static Nested3 EchoNested3Managed(Nested3 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static Nested4 EchoNested4Managed(Nested4 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static Nested5 EchoNested5Managed(Nested5 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static Nested6 EchoNested6Managed(Nested6 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static Nested7 EchoNested7Managed(Nested7 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static Nested8 EchoNested8Managed(Nested8 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static Nested9 EchoNested9Managed(Nested9 value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static TwoLongs NotEnoughRegistersSysV1Managed(ulong a, ulong b, ulong c, ulong d, ulong e, ulong f, TwoLongs value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static TwoLongs NotEnoughRegistersSysV2Managed(ulong a, ulong b, ulong c, ulong d, ulong e, TwoLongs value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static DoubleAndByte NotEnoughRegistersSysV3Managed(ulong a, ulong b, ulong c, ulong d, ulong e, ulong f, DoubleAndByte value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static TwoDoubles NotEnoughRegistersSysV4Managed(double a, double b, double c, double d, double e, double f, double g, double h, TwoDoubles value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static TwoDoubles NotEnoughRegistersSysV5Managed(double a, double b, double c, double d, double e, double f, double g, TwoDoubles value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static DoubleAndByte NotEnoughRegistersSysV6Managed(double a, double b, double c, double d, double e, double f, double g, double h, DoubleAndByte value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static TwoDoubles EnoughRegistersSysV1Managed(ulong a, ulong b, ulong c, ulong d, ulong e, ulong f, TwoDoubles value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static DoubleAndByte EnoughRegistersSysV2Managed(ulong a, ulong b, ulong c, ulong d, ulong e, DoubleAndByte value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static TwoLongs EnoughRegistersSysV3Managed(double a, double b, double c, double d, double e, double f, double g, double h, TwoLongs value)
	{
		return value;
	}

	[MethodImpl(MethodImplOptions.NoInlining)]
	static DoubleAndByte EnoughRegistersSysV4Managed(double a, double b, double c, double d, double e, double f, double g, DoubleAndByte value)
	{
		return value;
	}

	////////////////////////////////////////////////////////////////////////////
	// Wrapper methods
	//
	// This will allow us to call both the PInvoke native function and
	// managed method.
	////////////////////////////////////////////////////////////////////////////

	static bool EchoSingleByteWrapper()
	{
		bool ok = true;
		SingleByte expectedSingleByte = SingleByte.Get();
		SingleByte nativeSingleByte = EchoSingleByte(expectedSingleByte);
		SingleByte managedSingleByte = EchoSingleByteManaged(expectedSingleByte);

		if (!expectedSingleByte.Equals(nativeSingleByte))
		{
			Console.WriteLine("Native call for EchoSingleByte failed");
			ok = false;
		}

		if (!expectedSingleByte.Equals(managedSingleByte))
		{
			Console.WriteLine("Managed call for EchoSingleByte failed");
			ok = false;
		}

		SingleByte expectedSingleByte2 = new SingleByte();
		expectedSingleByte2.Byte = 42;

		nativeSingleByte = EchoSingleByte(expectedSingleByte2);
		managedSingleByte = EchoSingleByteManaged(expectedSingleByte2);

		if (!expectedSingleByte2.Equals(nativeSingleByte))
		{
			Console.WriteLine("Native call for EchoSingleByte failed");
			ok = false;
		}

		if (!expectedSingleByte2.Equals(managedSingleByte))
		{
			Console.WriteLine("Managed call for EchoSingleByte failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoSingleLongWrapper()
	{
		bool ok = true;
		SingleLong expectedSingleLong = SingleLong.Get();
		SingleLong nativeSingleLong = EchoSingleLong(expectedSingleLong);
		SingleLong managedSingleLong = EchoSingleLongManaged(expectedSingleLong);

		if (!expectedSingleLong.Equals(nativeSingleLong))
		{
			Console.WriteLine("Native call for EchoSingleLong failed");
			ok = false;
		}

		if (!expectedSingleLong.Equals(managedSingleLong))
		{
			Console.WriteLine("Managed call for EchoSingleLong failed");
			ok = false;
		}

		SingleLong expectedSingleLong2 = new SingleLong();
		expectedSingleLong2.Long = 0xfeedfaceabadf00d;

		nativeSingleLong = EchoSingleLong(expectedSingleLong2);
		managedSingleLong = EchoSingleLongManaged(expectedSingleLong2);

		if (!expectedSingleLong2.Equals(nativeSingleLong))
		{
			Console.WriteLine("Native call for EchoSingleByte failed");
			ok = false;
		}

		if (!expectedSingleLong2.Equals(managedSingleLong))
		{
			Console.WriteLine("Managed call for EchoSingleByte failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoSingleFloatWrapper()
	{
		bool ok = true;
		SingleFloat expectedSingleFloat = SingleFloat.Get();
		SingleFloat nativeSingleFloat = EchoSingleFloat(expectedSingleFloat);
		SingleFloat managedSingleFloat = EchoSingleFloatManaged(expectedSingleFloat);

		if (!expectedSingleFloat.Equals(nativeSingleFloat))
		{
			Console.WriteLine("Native call for EchoSingleFloat failed");
			ok = false;
		}

		if (!expectedSingleFloat.Equals(managedSingleFloat))
		{
			Console.WriteLine("Managed call for EchoSingleFloat failed");
			ok = false;
		}

		SingleFloat expectedSingleFloat2 = new SingleFloat();
		expectedSingleFloat2.Float = 3.14159f;

		nativeSingleFloat = EchoSingleFloat(expectedSingleFloat2);
		managedSingleFloat = EchoSingleFloatManaged(expectedSingleFloat2);

		if (!expectedSingleFloat2.Equals(nativeSingleFloat))
		{
			Console.WriteLine("Native call for EchoSingleFloat failed");
			ok = false;
		}

		if (!expectedSingleFloat2.Equals(managedSingleFloat))
		{
			Console.WriteLine("Managed call for EchoSingleFloat failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoSingleDoubleWrapper()
	{
		bool ok = true;
		SingleDouble expectedSingleDouble = SingleDouble.Get();
		SingleDouble nativeSingleDouble = EchoSingleDouble(expectedSingleDouble);
		SingleDouble managedSingleDouble = EchoSingleDoubleManaged(expectedSingleDouble);

		if (!expectedSingleDouble.Equals(nativeSingleDouble))
		{
			Console.WriteLine("Native call for EchoSingleDouble failed");
			ok = false;
		}

		if (!expectedSingleDouble.Equals(managedSingleDouble))
		{
			Console.WriteLine("Managed call for EchoSingleDouble failed");
			ok = false;
		}

		SingleDouble expectedSingleDouble2 = new SingleDouble();
		expectedSingleDouble2.Double = 3.14159d;

		nativeSingleDouble = EchoSingleDouble(expectedSingleDouble2);
		managedSingleDouble = EchoSingleDoubleManaged(expectedSingleDouble2);

		if (!expectedSingleDouble2.Equals(nativeSingleDouble))
		{
			Console.WriteLine("Native call for EchoSingleDouble failed");
			ok = false;
		}

		if (!expectedSingleDouble2.Equals(managedSingleDouble))
		{
			Console.WriteLine("Managed call for EchoSingleDouble failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoByteAndFloatWrapper()
	{
		bool ok = true;
		ByteAndFloat expectedByteAndFloat = ByteAndFloat.Get();
		ByteAndFloat nativeByteAndFloat = EchoByteAndFloat(expectedByteAndFloat);
		ByteAndFloat managedByteAndFloat = EchoByteAndFloatManaged(expectedByteAndFloat);

		if (!expectedByteAndFloat.Equals(nativeByteAndFloat))
		{
			Console.WriteLine("Native call for EchoByteAndFloat failed");
			ok = false;
		}

		if (!expectedByteAndFloat.Equals(managedByteAndFloat))
		{
			Console.WriteLine("Managed call for EchoByteAndFloat failed");
			ok = false;
		}

		ByteAndFloat expectedByteAndFloat2 = new ByteAndFloat();
		expectedByteAndFloat2.Byte = 42;
		expectedByteAndFloat2.Float = 3.14159f;

		nativeByteAndFloat = EchoByteAndFloat(expectedByteAndFloat2);
		managedByteAndFloat = EchoByteAndFloatManaged(expectedByteAndFloat2);

		if (!expectedByteAndFloat2.Equals(nativeByteAndFloat))
		{
			Console.WriteLine("Native call for EchoByteAndFloat failed");
			ok = false;
		}

		if (!expectedByteAndFloat2.Equals(managedByteAndFloat))
		{
			Console.WriteLine("Managed call for EchoByteAndFloat failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoLongAndFloatWrapper()
	{
		bool ok = true;
		LongAndFloat expectedLongAndFloat = LongAndFloat.Get();
		LongAndFloat nativeLongAndFloat = EchoLongAndFloat(expectedLongAndFloat);
		LongAndFloat managedLongAndFloat = EchoLongAndFloatManaged(expectedLongAndFloat);

		if (!expectedLongAndFloat.Equals(nativeLongAndFloat))
		{
			Console.WriteLine("Native call for EchoLongAndFloat failed");
			ok = false;
		}

		if (!expectedLongAndFloat.Equals(managedLongAndFloat))
		{
			Console.WriteLine("Managed call for EchoLongAndFloat failed");
			ok = false;
		}

		LongAndFloat expectedLongAndFloat2 = new LongAndFloat();
		expectedLongAndFloat2.Long = 0xfeedfaceabadf00d;
		expectedLongAndFloat2.Float = 3.14159f;

		nativeLongAndFloat = EchoLongAndFloat(expectedLongAndFloat2);
		managedLongAndFloat = EchoLongAndFloatManaged(expectedLongAndFloat2);

		if (!expectedLongAndFloat2.Equals(nativeLongAndFloat))
		{
			Console.WriteLine("Native call for EchoLongAndFloat failed");
			ok = false;
		}

		if (!expectedLongAndFloat2.Equals(managedLongAndFloat))
		{
			Console.WriteLine("Managed call for EchoLongAndFloat failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoByteAndDoubleWrapper()
	{
		bool ok = true;
		ByteAndDouble expectedByteAndDouble = ByteAndDouble.Get();
		ByteAndDouble nativeByteAndDouble = EchoByteAndDouble(expectedByteAndDouble);
		ByteAndDouble managedByteAndDouble = EchoByteAndDoubleManaged(expectedByteAndDouble);

		if (!expectedByteAndDouble.Equals(nativeByteAndDouble))
		{
			Console.WriteLine("Native call for EchoByteAndDouble failed");
			ok = false;
		}

		if (!expectedByteAndDouble.Equals(managedByteAndDouble))
		{
			Console.WriteLine("Managed call for EchoByteAndDouble failed");
			ok = false;
		}

		ByteAndDouble expectedByteAndDouble2 = new ByteAndDouble();
		expectedByteAndDouble2.Byte = 42;
		expectedByteAndDouble2.Double = 3.14159d;

		nativeByteAndDouble = EchoByteAndDouble(expectedByteAndDouble2);
		managedByteAndDouble = EchoByteAndDoubleManaged(expectedByteAndDouble2);

		if (!expectedByteAndDouble2.Equals(nativeByteAndDouble))
		{
			Console.WriteLine("Native call for EchoByteAndDouble failed");
			ok = false;
		}

		if (!expectedByteAndDouble2.Equals(managedByteAndDouble))
		{
			Console.WriteLine("Managed call for EchoByteAndDouble failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoDoubleAndByteWrapper()
	{
		bool ok = true;
		DoubleAndByte expectedDoubleAndByte = DoubleAndByte.Get();
		DoubleAndByte nativeDoubleAndByte = EchoDoubleAndByte(expectedDoubleAndByte);
		DoubleAndByte managedDoubleAndByte = EchoDoubleAndByteManaged(expectedDoubleAndByte);

		if (!expectedDoubleAndByte.Equals(nativeDoubleAndByte))
		{
			Console.WriteLine("Native call for EchoDoubleAndByte failed");
			ok = false;
		}

		if (!expectedDoubleAndByte.Equals(managedDoubleAndByte))
		{
			Console.WriteLine("Managed call for EchoDoubleAndByte failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoPointerAndByteWrapper()
	{
		bool ok = true;
		PointerAndByte expectedPointerAndByte = PointerAndByte.Get();
		PointerAndByte nativePointerAndByte = EchoPointerAndByte(expectedPointerAndByte);
		PointerAndByte managedPointerAndByte = EchoPointerAndByteManaged(expectedPointerAndByte);

		if (!expectedPointerAndByte.Equals(nativePointerAndByte))
		{
			Console.WriteLine("Native call for EchoPointerAndByte failed");
			ok = false;
		}

		if (!expectedPointerAndByte.Equals(managedPointerAndByte))
		{
			Console.WriteLine("Managed call for EchoPointerAndByte failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoByteAndPointerWrapper()
	{
		bool ok = true;
		ByteAndPointer expectedByteAndPointer = ByteAndPointer.Get();
		ByteAndPointer nativeByteAndPointer = EchoByteAndPointer(expectedByteAndPointer);
		ByteAndPointer managedByteAndPointer = EchoByteAndPointerManaged(expectedByteAndPointer);

		if (!expectedByteAndPointer.Equals(nativeByteAndPointer))
		{
			Console.WriteLine("Native call for EchoByteAndPointer failed");
			ok = false;
		}

		if (!expectedByteAndPointer.Equals(managedByteAndPointer))
		{
			Console.WriteLine("Managed call for EchoByteAndPointer failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoByteFloatAndPointerWrapper()
	{
		bool ok = true;
		ByteFloatAndPointer expectedByteFloatAndPointer = ByteFloatAndPointer.Get();
		ByteFloatAndPointer nativeByteFloatAndPointer = EchoByteFloatAndPointer(expectedByteFloatAndPointer);
		ByteFloatAndPointer managedByteFloatAndPointer = EchoByteFloatAndPointerManaged(expectedByteFloatAndPointer);

		if (!expectedByteFloatAndPointer.Equals(nativeByteFloatAndPointer))
		{
			Console.WriteLine("Native call for EchoByteFloatAndPointer failed");
			ok = false;
		}

		if (!expectedByteFloatAndPointer.Equals(managedByteFloatAndPointer))
		{
			Console.WriteLine("Managed call for EchoByteFloatAndPointer failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoPointerFloatAndByteWrapper()
	{
		bool ok = true;
		PointerFloatAndByte expectedPointerFloatAndByte = PointerFloatAndByte.Get();
		PointerFloatAndByte nativePointerFloatAndByte = EchoPointerFloatAndByte(expectedPointerFloatAndByte);
		PointerFloatAndByte managedPointerFloatAndByte = EchoPointerFloatAndByteManaged(expectedPointerFloatAndByte);

		if (!expectedPointerFloatAndByte.Equals(nativePointerFloatAndByte))
		{
			Console.WriteLine("Native call for EchoPointerFloatAndByte failed");
			ok = false;
		}

		if (!expectedPointerFloatAndByte.Equals(managedPointerFloatAndByte))
		{
			Console.WriteLine("Managed call for EchoPointerFloatAndByte failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoShortIntFloatIntPtrWrapper()
	{
		bool ok = true;
		ShortIntFloatIntPtr expectedShortIntFloatIntPtr = ShortIntFloatIntPtr.Get();
		ShortIntFloatIntPtr nativeShortIntFloatIntPtr = EchoShortIntFloatIntPtr(expectedShortIntFloatIntPtr);
		ShortIntFloatIntPtr managedShortIntFloatIntPtr = EchoShortIntFloatIntPtrManaged(expectedShortIntFloatIntPtr);

		if (!expectedShortIntFloatIntPtr.Equals(nativeShortIntFloatIntPtr))
		{
			Console.WriteLine("Native call for EchoShortIntFloatIntPtr failed");
			ok = false;
		}

		if (!expectedShortIntFloatIntPtr.Equals(managedShortIntFloatIntPtr))
		{
			Console.WriteLine("Managed call for EchoShortIntFloatIntPtr failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoTwoLongsWrapper()
	{
		bool ok = true;
		TwoLongs expectedTwoLongs = TwoLongs.Get();
		TwoLongs nativeTwoLongs = EchoTwoLongs(expectedTwoLongs);
		TwoLongs managedTwoLongs = EchoTwoLongsManaged(expectedTwoLongs);

		if (!expectedTwoLongs.Equals(nativeTwoLongs))
		{
			Console.WriteLine("Native call for EchoTwoLongs failed");
			ok = false;
		}

		if (!expectedTwoLongs.Equals(managedTwoLongs))
		{
			Console.WriteLine("Managed call for EchoTwoLongs failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoTwoFloatsWrapper()
	{
		bool ok = true;
		TwoFloats expectedTwoFloats = TwoFloats.Get();
		TwoFloats nativeTwoFloats = EchoTwoFloats(expectedTwoFloats);
		TwoFloats managedTwoFloats = EchoTwoFloatsManaged(expectedTwoFloats);

		if (!expectedTwoFloats.Equals(nativeTwoFloats))
		{
			Console.WriteLine("Native call for EchoTwoFloats failed");
			ok = false;
		}

		if (!expectedTwoFloats.Equals(managedTwoFloats))
		{
			Console.WriteLine("Managed call for EchoTwoFloats failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoTwoDoublesWrapper()
	{
		bool ok = true;
		TwoDoubles expectedTwoDoubles = TwoDoubles.Get();
		TwoDoubles nativeTwoDoubles = EchoTwoDoubles(expectedTwoDoubles);
		TwoDoubles managedTwoDoubles = EchoTwoDoublesManaged(expectedTwoDoubles);

		if (!expectedTwoDoubles.Equals(nativeTwoDoubles))
		{
			Console.WriteLine("Native call for EchoTwoDoubles failed");
			ok = false;
		}

		if (!expectedTwoDoubles.Equals(managedTwoDoubles))
		{
			Console.WriteLine("Managed call for EchoTwoDoubles failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoFourLongsWrapper()
	{
		bool ok = true;
		FourLongs expectedFourLongs = FourLongs.Get();
		FourLongs nativeFourLongs = EchoFourLongs(expectedFourLongs);
		FourLongs managedFourLongs = EchoFourLongsManaged(expectedFourLongs);

		if (!expectedFourLongs.Equals(nativeFourLongs))
		{
			Console.WriteLine("Native call for EchoFourLongs failed");
			ok = false;
		}

		if (!expectedFourLongs.Equals(managedFourLongs))
		{
			Console.WriteLine("Managed call for EchoFourLongs failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoFourDoublesWrapper()
	{
		bool ok = true;
		FourDoubles expectedFourDoubles = FourDoubles.Get();
		FourDoubles nativeFourDoubles = EchoFourDoubles(expectedFourDoubles);
		FourDoubles managedFourDoubles = EchoFourDoublesManaged(expectedFourDoubles);

		if (!expectedFourDoubles.Equals(nativeFourDoubles))
		{
			Console.WriteLine("Native call for EchoFourDoubles failed");
			ok = false;
		}

		if (!expectedFourDoubles.Equals(managedFourDoubles))
		{
			Console.WriteLine("Managed call for EchoFourDoubles failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoInlineArray1Wrapper()
	{
		bool ok = true;
		InlineArray1 expectedInlineArray1 = InlineArray1.Get();
		InlineArray1 nativeInlineArray1 = EchoInlineArray1(expectedInlineArray1);
		InlineArray1 managedInlineArray1 = EchoInlineArray1Managed(expectedInlineArray1);

		if (!expectedInlineArray1.Equals(nativeInlineArray1))
		{
			Console.WriteLine("Native call for EchoInlineArray1 failed");
			ok = false;
		}

		if (!expectedInlineArray1.Equals(managedInlineArray1))
		{
			Console.WriteLine("Managed call for EchoInlineArray1 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoInlineArray2Wrapper()
	{
		bool ok = true;
		InlineArray2 expectedInlineArray2 = InlineArray2.Get();
		InlineArray2 nativeInlineArray2 = EchoInlineArray2(expectedInlineArray2);
		InlineArray2 managedInlineArray2 = EchoInlineArray2Managed(expectedInlineArray2);

		if (!expectedInlineArray2.Equals(nativeInlineArray2))
		{
			Console.WriteLine("Native call for EchoInlineArray2 failed");
			ok = false;
		}

		if (!expectedInlineArray2.Equals(managedInlineArray2))
		{
			Console.WriteLine("Managed call for EchoInlineArray2 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoInlineArray3Wrapper()
	{
		bool ok = true;
		InlineArray3 expectedInlineArray3 = InlineArray3.Get();
		InlineArray3 nativeInlineArray3 = EchoInlineArray3(expectedInlineArray3);
		InlineArray3 managedInlineArray3 = EchoInlineArray3Managed(expectedInlineArray3);

		if (!expectedInlineArray3.Equals(nativeInlineArray3))
		{
			Console.WriteLine("Native call for EchoInlineArray3 failed");
			ok = false;
		}

		if (!expectedInlineArray3.Equals(managedInlineArray3))
		{
			Console.WriteLine("Managed call for EchoInlineArray3 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoInlineArray4Wrapper()
	{
		bool ok = true;
		InlineArray4 expectedInlineArray4 = InlineArray4.Get();
		InlineArray4 nativeInlineArray4 = EchoInlineArray4(expectedInlineArray4);
		InlineArray4 managedInlineArray4 = EchoInlineArray4Managed(expectedInlineArray4);

		if (!expectedInlineArray4.Equals(nativeInlineArray4))
		{
			Console.WriteLine("Native call for EchoInlineArray4 failed");
			ok = false;
		}

		if (!expectedInlineArray4.Equals(managedInlineArray4))
		{
			Console.WriteLine("Managed call for EchoInlineArray4 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoInlineArray5Wrapper()
	{
		bool ok = true;
		InlineArray5 expectedInlineArray5 = InlineArray5.Get();
		InlineArray5 nativeInlineArray5 = EchoInlineArray5(expectedInlineArray5);
		InlineArray5 managedInlineArray5 = EchoInlineArray5Managed(expectedInlineArray5);

		if (!expectedInlineArray5.Equals(nativeInlineArray5))
		{
			Console.WriteLine("Native call for EchoInlineArray5 failed");
			ok = false;
		}

		if (!expectedInlineArray5.Equals(managedInlineArray5))
		{
			Console.WriteLine("Managed call for EchoInlineArray5 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoInlineArray6Wrapper()
	{
		bool ok = true;
		InlineArray6 expectedInlineArray6 = InlineArray6.Get();
		InlineArray6 nativeInlineArray6 = EchoInlineArray6(expectedInlineArray6);
		InlineArray6 managedInlineArray6 = EchoInlineArray6Managed(expectedInlineArray6);

		if (!expectedInlineArray6.Equals(nativeInlineArray6))
		{
			Console.WriteLine("Native call for EchoInlineArray6 failed");
			ok = false;
		}

		if (!expectedInlineArray6.Equals(managedInlineArray6))
		{
			Console.WriteLine("Managed call for EchoInlineArray6 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoNested1Wrapper()
	{
		bool ok = true;
		Nested1 expectedNested1 = Nested1.Get();
		Nested1 nativeNested1 = EchoNested1(expectedNested1);
		Nested1 managedNested1 = EchoNested1Managed(expectedNested1);

		if (!expectedNested1.Equals(nativeNested1))
		{
			Console.WriteLine("Native call for EchoNested1 failed");
			ok = false;
		}

		if (!expectedNested1.Equals(managedNested1))
		{
			Console.WriteLine("Managed call for EchoNested1 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoNested2Wrapper()
	{
		bool ok = true;
		Nested2 expectedNested2 = Nested2.Get();
		Nested2 nativeNested2 = EchoNested2(expectedNested2);
		Nested2 managedNested2 = EchoNested2Managed(expectedNested2);

		if (!expectedNested2.Equals(nativeNested2))
		{
			Console.WriteLine("Native call for EchoNested2 failed");
			ok = false;
		}

		if (!expectedNested2.Equals(managedNested2))
		{
			Console.WriteLine("Managed call for EchoNested2 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoNested3Wrapper()
	{
		bool ok = true;
		Nested3 expectedNested3 = Nested3.Get();
		Nested3 nativeNested3 = EchoNested3(expectedNested3);
		Nested3 managedNested3 = EchoNested3Managed(expectedNested3);

		if (!expectedNested3.Equals(nativeNested3))
		{
			Console.WriteLine("Native call for EchoNested3 failed");
			ok = false;
		}

		if (!expectedNested3.Equals(managedNested3))
		{
			Console.WriteLine("Managed call for EchoNested3 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoNested4Wrapper()
	{
		bool ok = true;
		Nested4 expectedNested4 = Nested4.Get();
		Nested4 nativeNested4 = EchoNested4(expectedNested4);
		Nested4 managedNested4 = EchoNested4Managed(expectedNested4);

		if (!expectedNested4.Equals(nativeNested4))
		{
			Console.WriteLine("Native call for EchoNested4 failed");
			ok = false;
		}

		if (!expectedNested4.Equals(managedNested4))
		{
			Console.WriteLine("Managed call for EchoNested4 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoNested5Wrapper()
	{
		bool ok = true;
		Nested5 expectedNested5 = Nested5.Get();
		Nested5 nativeNested5 = EchoNested5(expectedNested5);
		Nested5 managedNested5 = EchoNested5Managed(expectedNested5);

		if (!expectedNested5.Equals(nativeNested5))
		{
			Console.WriteLine("Native call for EchoNested5 failed");
			ok = false;
		}

		if (!expectedNested5.Equals(managedNested5))
		{
			Console.WriteLine("Managed call for EchoNested5 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoNested6Wrapper()
	{
		bool ok = true;
		Nested6 expectedNested6 = Nested6.Get();
		Nested6 nativeNested6 = EchoNested6(expectedNested6);
		Nested6 managedNested6 = EchoNested6Managed(expectedNested6);

		if (!expectedNested6.Equals(nativeNested6))
		{
			Console.WriteLine("Native call for EchoNested6 failed");
			ok = false;
		}

		if (!expectedNested6.Equals(managedNested6))
		{
			Console.WriteLine("Managed call for EchoNested6 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoNested7Wrapper()
	{
		bool ok = true;
		Nested7 expectedNested7 = Nested7.Get();
		Nested7 nativeNested7 = EchoNested7(expectedNested7);
		Nested7 managedNested7 = EchoNested7Managed(expectedNested7);

		if (!expectedNested7.Equals(nativeNested7))
		{
			Console.WriteLine("Native call for EchoNested7 failed");
			ok = false;
		}

		if (!expectedNested7.Equals(managedNested7))
		{
			Console.WriteLine("Managed call for EchoNested7 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoNested8Wrapper()
	{
		bool ok = true;
		Nested8 expectedNested8 = Nested8.Get();
		Nested8 nativeNested8 = EchoNested8(expectedNested8);
		Nested8 managedNested8 = EchoNested8Managed(expectedNested8);

		if (!expectedNested8.Equals(nativeNested8))
		{
			Console.WriteLine("Native call for EchoNested8 failed");
			ok = false;
		}

		if (!expectedNested8.Equals(managedNested8))
		{
			Console.WriteLine("Managed call for EchoNested8 failed");
			ok = false;
		}

		return ok;
	}

	static bool EchoNested9Wrapper()
	{
		bool ok = true;
		Nested9 expectedNested9 = Nested9.Get();
		Nested9 nativeNested9 = EchoNested9(expectedNested9);
		Nested9 managedNested9 = EchoNested9Managed(expectedNested9);

		if (!expectedNested9.Equals(nativeNested9))
		{
			Console.WriteLine("Native call for EchoNested9 failed");
			ok = false;
		}

		if (!expectedNested9.Equals(managedNested9))
		{
			Console.WriteLine("Managed call for EchoNested9 failed");
			ok = false;
		}

		return ok;
	}

	static bool NotEnoughRegistersSysV1Wrapper()
	{
		bool ok = true;

		TwoLongs expectedNotEnoughRegistersSysV1 = TwoLongs.Get();
		TwoLongs nativeNotEnoughRegistersSysV1 = NotEnoughRegistersSysV1(1, 2, 3, 4, 5, 6, expectedNotEnoughRegistersSysV1);
		TwoLongs managedNotEnoughRegistersSysV1 = NotEnoughRegistersSysV1Managed(1, 2, 3, 4, 5, 6, expectedNotEnoughRegistersSysV1);

		if (!expectedNotEnoughRegistersSysV1.Equals(nativeNotEnoughRegistersSysV1))
		{
			Console.WriteLine("Native NotEnoughRegistersSysV1 failed");
			ok = false;
		}

		if (!expectedNotEnoughRegistersSysV1.Equals(managedNotEnoughRegistersSysV1))
		{
			Console.WriteLine("Managed NotEnoughRegistersSysV1 failed");
			ok = false;
		}

		return ok;
	}

	static bool NotEnoughRegistersSysV2Wrapper()
	{
		bool ok = true;

		TwoLongs expectedNotEnoughRegistersSysV2 = TwoLongs.Get();
		TwoLongs nativeNotEnoughRegistersSysV2 = NotEnoughRegistersSysV2(1, 2, 3, 4, 5, expectedNotEnoughRegistersSysV2);
		TwoLongs managedNotEnoughRegistersSysV2 = NotEnoughRegistersSysV2Managed(1, 2, 3, 4, 5, expectedNotEnoughRegistersSysV2);

		if (!expectedNotEnoughRegistersSysV2.Equals(nativeNotEnoughRegistersSysV2))
		{
			Console.WriteLine("Native NotEnoughRegistersSysV2 failed");
			ok = false;
		}

		if (!expectedNotEnoughRegistersSysV2.Equals(managedNotEnoughRegistersSysV2))
		{
			Console.WriteLine("Managed NotEnoughRegistersSysV2 failed");
			ok = false;
		}

		return ok;
	}

	static bool NotEnoughRegistersSysV3Wrapper()
	{
		bool ok = true;

		DoubleAndByte expectedNotEnoughRegistersSysV3 = DoubleAndByte.Get();
		DoubleAndByte nativeNotEnoughRegistersSysV3 = NotEnoughRegistersSysV3(1, 2, 3, 4, 5, 6, expectedNotEnoughRegistersSysV3);
		DoubleAndByte managedNotEnoughRegistersSysV3 = NotEnoughRegistersSysV3Managed(1, 2, 3, 4, 5, 6, expectedNotEnoughRegistersSysV3);

		if (!expectedNotEnoughRegistersSysV3.Equals(nativeNotEnoughRegistersSysV3))
		{
			Console.WriteLine("Native NotEnoughRegistersSysV3 failed");
			ok = false;
		}

		if (!expectedNotEnoughRegistersSysV3.Equals(managedNotEnoughRegistersSysV3))
		{
			Console.WriteLine("Managed NotEnoughRegistersSysV3 failed");
			ok = false;
		}

		return ok;
	}

	static bool NotEnoughRegistersSysV4Wrapper()
	{
		bool ok = true;

		TwoDoubles expectedNotEnoughRegistersSysV4 = TwoDoubles.Get();
		TwoDoubles nativeNotEnoughRegistersSysV4 = NotEnoughRegistersSysV4(1.0d, 2.0d, 3.0d, 4.0d, 5.0d, 6.0d, 7.0d, 8.0d, expectedNotEnoughRegistersSysV4);
		TwoDoubles managedNotEnoughRegistersSysV4 = NotEnoughRegistersSysV4Managed(1.0d, 2.0d, 3.0d, 4.0d, 5.0d, 6.0d, 7.0d, 8.0d, expectedNotEnoughRegistersSysV4);

		if (!expectedNotEnoughRegistersSysV4.Equals(nativeNotEnoughRegistersSysV4))
		{
			Console.WriteLine("Native NotEnoughRegistersSysV4 failed");
			ok = false;
		}

		if (!expectedNotEnoughRegistersSysV4.Equals(managedNotEnoughRegistersSysV4))
		{
			Console.WriteLine("Managed NotEnoughRegistersSysV4 failed");
			ok = false;
		}

		return ok;
	}

	static bool NotEnoughRegistersSysV5Wrapper()
	{
		bool ok = true;

		TwoDoubles expectedNotEnoughRegistersSysV5 = TwoDoubles.Get();
		TwoDoubles nativeNotEnoughRegistersSysV5 = NotEnoughRegistersSysV5(1.0d, 2.0d, 3.0d, 4.0d, 5.0d, 6.0d, 7.0d, expectedNotEnoughRegistersSysV5);
		TwoDoubles managedNotEnoughRegistersSysV5 = NotEnoughRegistersSysV5Managed(1.0d, 2.0d, 3.0d, 4.0d, 5.0d, 6.0d, 7.0d, expectedNotEnoughRegistersSysV5);

		if (!expectedNotEnoughRegistersSysV5.Equals(nativeNotEnoughRegistersSysV5))
		{
			Console.WriteLine("Native NotEnoughRegistersSysV5 failed");
			ok = false;
		}

		if (!expectedNotEnoughRegistersSysV5.Equals(managedNotEnoughRegistersSysV5))
		{
			Console.WriteLine("Managed NotEnoughRegistersSysV5 failed");
			ok = false;
		}

		return ok;
	}

	static bool NotEnoughRegistersSysV6Wrapper()
	{
		bool ok = true;

		DoubleAndByte expectedNotEnoughRegistersSysV6 = DoubleAndByte.Get();
		DoubleAndByte nativeNotEnoughRegistersSysV6 = NotEnoughRegistersSysV6(1.0d, 2.0d, 3.0d, 4.0d, 5.0d, 6.0d, 7.0d, 8.0d, expectedNotEnoughRegistersSysV6);
		DoubleAndByte managedNotEnoughRegistersSysV6 = NotEnoughRegistersSysV6Managed(1.0d, 2.0d, 3.0d, 4.0d, 5.0d, 6.0d, 7.0d, 8.0d, expectedNotEnoughRegistersSysV6);

		if (!expectedNotEnoughRegistersSysV6.Equals(nativeNotEnoughRegistersSysV6))
		{
			Console.WriteLine("Native NotEnoughRegistersSysV6 failed");
			ok = false;
		}

		if (!expectedNotEnoughRegistersSysV6.Equals(managedNotEnoughRegistersSysV6))
		{
			Console.WriteLine("Managed NotEnoughRegistersSysV6 failed");
			ok = false;
		}

		return ok;
	}

	static bool EnoughRegistersSysV1Wrapper()
	{
		bool ok = true;

		TwoDoubles expectedEnoughRegistersSysV1 = TwoDoubles.Get();
		TwoDoubles nativeEnoughRegistersSysV1 = EnoughRegistersSysV1(1, 2, 3, 4, 5, 6, expectedEnoughRegistersSysV1);
		TwoDoubles managedEnoughRegistersSysV1 = EnoughRegistersSysV1Managed(1, 2, 3, 4, 5, 6, expectedEnoughRegistersSysV1);

		if (!expectedEnoughRegistersSysV1.Equals(nativeEnoughRegistersSysV1))
		{
			Console.WriteLine("Native EnoughRegistersSysV1 failed");
			ok = false;
		}

		if (!expectedEnoughRegistersSysV1.Equals(managedEnoughRegistersSysV1))
		{
			Console.WriteLine("Managed EnoughRegistersSysV1 failed");
			ok = false;
		}

		return ok;
	}

	static bool EnoughRegistersSysV2Wrapper()
	{
		bool ok = true;

		DoubleAndByte expectedEnoughRegistersSysV2 = DoubleAndByte.Get();
		DoubleAndByte nativeEnoughRegistersSysV2 = EnoughRegistersSysV2(1, 2, 3, 4, 5, expectedEnoughRegistersSysV2);
		DoubleAndByte managedEnoughRegistersSysV2 = EnoughRegistersSysV2Managed(1, 2, 3, 4, 5, expectedEnoughRegistersSysV2);

		if (!expectedEnoughRegistersSysV2.Equals(nativeEnoughRegistersSysV2))
		{
			Console.WriteLine("Native EnoughRegistersSysV2 failed");
			ok = false;
		}

		if (!expectedEnoughRegistersSysV2.Equals(managedEnoughRegistersSysV2))
		{
			Console.WriteLine("Managed EnoughRegistersSysV2 failed");
			ok = false;
		}

		return ok;
	}

	static bool EnoughRegistersSysV3Wrapper()
	{
		bool ok = true;

		TwoLongs expectedEnoughRegistersSysV3 = TwoLongs.Get();
		TwoLongs nativeEnoughRegistersSysV3 = EnoughRegistersSysV3(1.0d, 2.0d, 3.0d, 4.0d, 5.0d, 6.0d, 7.0d, 8.0d, expectedEnoughRegistersSysV3);
		TwoLongs managedEnoughRegistersSysV3 = EnoughRegistersSysV3Managed(1.0d, 2.0d, 3.0d, 4.0d, 5.0d, 6.0d, 7.0d, 8.0d, expectedEnoughRegistersSysV3);

		if (!expectedEnoughRegistersSysV3.Equals(nativeEnoughRegistersSysV3))
		{
			Console.WriteLine("Native EnoughRegistersSysV3 failed");
			ok = false;
		}

		if (!expectedEnoughRegistersSysV3.Equals(managedEnoughRegistersSysV3))
		{
			Console.WriteLine("Managed EnoughRegistersSysV3 failed");
			ok = false;
		}

		return ok;
	}

	static bool EnoughRegistersSysV4Wrapper()
	{
		bool ok = true;

		DoubleAndByte expectedEnoughRegistersSysV4 = DoubleAndByte.Get();
		DoubleAndByte nativeEnoughRegistersSysV4 = EnoughRegistersSysV4(1.0d, 2.0d, 3.0d, 4.0d, 5.0d, 6.0d, 7.0d, expectedEnoughRegistersSysV4);
		DoubleAndByte managedEnoughRegistersSysV4 = EnoughRegistersSysV4Managed(1.0d, 2.0d, 3.0d, 4.0d, 5.0d, 6.0d, 7.0d, expectedEnoughRegistersSysV4);

		if (!expectedEnoughRegistersSysV4.Equals(nativeEnoughRegistersSysV4))
		{
			Console.WriteLine("Native EnoughRegistersSysV4 failed");
			ok = false;
		}

		if (!expectedEnoughRegistersSysV4.Equals(managedEnoughRegistersSysV4))
		{
			Console.WriteLine("Managed EnoughRegistersSysV4 failed");
			ok = false;
		}

		return ok;
	}

	static int Main()
	{
		var ok = true;

		if (!EchoSingleByteWrapper()) ok = false;
		if (!EchoSingleLongWrapper()) ok = false;
		if (!EchoSingleFloatWrapper()) ok = false;
		if (!EchoSingleDoubleWrapper()) ok = false;
		if (!EchoByteAndFloatWrapper()) ok = false;
		if (!EchoLongAndFloatWrapper()) ok = false;
		if (!EchoByteAndDoubleWrapper()) ok = false;
		if (!EchoDoubleAndByteWrapper()) ok = false;
		if (!EchoPointerAndByteWrapper()) ok = false;
		if (!EchoByteAndPointerWrapper()) ok = false;
		if (!EchoByteFloatAndPointerWrapper()) ok = false;
		if (!EchoPointerFloatAndByteWrapper()) ok = false;
		if (!EchoShortIntFloatIntPtrWrapper()) ok = false;
		if (!EchoTwoLongsWrapper()) ok = false;
		if (!EchoTwoFloatsWrapper()) ok = false;
		if (!EchoTwoDoublesWrapper()) ok = false;
		if (!EchoFourLongsWrapper()) ok = false;
		if (!EchoFourDoublesWrapper()) ok = false;
		if (!EchoInlineArray1Wrapper()) ok = false;
		if (!EchoInlineArray2Wrapper()) ok = false;
		if (!EchoInlineArray3Wrapper()) ok = false;
		if (!EchoInlineArray4Wrapper()) ok = false;
		if (!EchoInlineArray5Wrapper()) ok = false;
		if (!EchoInlineArray6Wrapper()) ok = false;
		if (!EchoNested1Wrapper()) ok = false;
		if (!EchoNested2Wrapper()) ok = false;
		if (!EchoNested3Wrapper()) ok = false;
		if (!EchoNested4Wrapper()) ok = false;
		if (!EchoNested5Wrapper()) ok = false;
		if (!EchoNested6Wrapper()) ok = false;
		if (!EchoNested7Wrapper()) ok = false;
		if (!EchoNested8Wrapper()) ok = false;
		if (!EchoNested9Wrapper()) ok = false;
		if (!NotEnoughRegistersSysV1Wrapper()) ok = false;
		if (!NotEnoughRegistersSysV2Wrapper()) ok = false;
		if (!NotEnoughRegistersSysV3Wrapper()) ok = false;
		if (!NotEnoughRegistersSysV4Wrapper()) ok = false;
		if (!NotEnoughRegistersSysV5Wrapper()) ok = false;
		if (!NotEnoughRegistersSysV6Wrapper()) ok = false;
		if (!EnoughRegistersSysV1Wrapper()) ok = false;
		if (!EnoughRegistersSysV2Wrapper()) ok = false;
		if (!EnoughRegistersSysV3Wrapper()) ok = false;
		if (!EnoughRegistersSysV4Wrapper()) ok = false;

		return ok ? 100 : -1;
	}
}


Gazania is a plant which grows along the ground. The leaves are green on the upper side and have a whitish felt on the underside. Flowers on the gazania are yellow orange and are 5-8 cm in diameter. The fruits on the Gazania are hairy and have a series of scales at the top. This plant flowers in summer and is found in many gardens as well as on the dunes.
Gazania plants grow low to the ground which helps it to be protected against strong winds. The leaves grow rather small so that there is a smaller surface area for the sun to extract moisture from and the leaves also have a white underside to protect them from the salt and also to help stop large amounts of evaporation.
Euphorbia is a native plant to the dune area. The plant inside has a milky latex which can be seen when broken. These plants have a fascinating and unique floral structure as the tiny looking flowers are actually a group of even smaller flowers. The flowers are surrounded by four, white bordered petal structures which are attached to a green cup. It grows to a height of one metre and has 15mm leaves which are dense and oblong. The leaves often have a red tinge and near the top of the stems become more circular.
Coastal Rosemary is a native dark green shrub. It grows to the height of two metres tall. The leaves are straight and are arranged in a whorls of four, they are 25mm long and have a grey underside. The flowers on the shrub are a white to mauve colour and grow to about 15mm long. Coastal Rosemary is often found on cliffs although it is common all throughout the sea area, it flowers almost all year round.
The shrub is able to survive because it's branches are flexible and the upper leaves are able to shelter the base of the plant to give the roots shaded and not give off too much moisture. The leaves are designed small so that each leaf has a small surface area and have only a low evaporation rate. Although the coastal rosemary is not low lying, it has a large root system which holds it firmly into the sand as well as holding the sand together in to form sand dunes.
At Port Noarlunga there are many plants growing in the sand dunes which protect the sand dunes from being washed away or blown away by the wind. Some of the beach plants are marram, sea rocket, Spinifex, pigface, euphorbia, coastal rosemary, gazania and roots. These plants are all fore dune plants and hey are mostly all small and low lying. Fore dune plants are able to survive living on the beach because they are succulent, they extrude the salt and they grow on runners. As the fore dune plants are able to survive these conditions they make it easier for more delicate and less adaptable plants to grow on the primary and secondary dunes because they provide shelter and humus for these plants.
Coastal protection is making it easier for the fore dune plants to grow and also protecting the sand dunes by bringing in laws and rules, building special structures and general coastal protection for example, cleanups and education services.
Carparks- to direct people into one area going down to the beach. Near the car park is most likely a board walk or trail for people to walk down to the beach on instead of walking over the sand dunes.
Board walks – The board walks are put in throughout the beach to encourage people to walk on them instead of on the sand dunes. These are placed consistently along the beach so people do no thave to walk too far and decide to walk down to the beach over the sand dunes because a board walk is too far away.
Fences – Fences are put up around the sand dunes to stop people walking over them. This gives the sand dunes a real chance to develop fore dune plants on them.
Signs are placed over the beach, with restrictions and laws on them. If people disobey these laws, large fines are needed to be paid or sometimes the person can go to jail. Other signs are informing that coastal protection is being used in the Port Noarlunga area and to be considerate of the wildlife.
The cliff at Witton Bluff had been undergoing a lot of erosion and now a protection scheme has been built to help prevent the cliff from eroding. Coastal protection is used to stop cliffs from eroding, a few different methods have been experimented with, but the protection used at Witton Bluff called 'Rip Rap' is the best method.
Irregular shaped rocks are placed in front of the cliff to absorb the waves energy and slow the wave. Under the rocks is a wire mesh and under that is a mixture of sand and gravel, these all act as filters to slow the wave and return it slowly to the beach and ea. The reason why this method is used is because the method of using large rocks is very unsightly which is the same with concrete walls, but the concrete walls also destroy the beach because the reflected waves remove the sand. Rip Rap causes the cliff base to still look natural as the rocks are placed in an effective way as well as stopping the cliff from eroding and protecting the beach at the same time.
The cliff at Witton Bluff is now more likely to erode from wind erosion not wave erosion.


text:
History at your fingertips.
CollectionBUArtColl - University Art Collection
252 more...
Item2003_012 - Archaic Image, 45/45
Item2003_013 - Memory of Van Horne, 41/45
Item2003_014 - Confinement, 15/45
Item2003_015 - Icon of Auyauttiq, 43/45
Item2003_016 - The Prophet, A.P.
Item2003_017 - City Portraits I, 7/45
Item2003_018 - City Portraits II, 12/45
Item2003_019 - City Portraits III, 7/45
Item2003_020 - City Portraits IV, 7/45
Item 2003_016 - The Prophet, A.P.
University Art Collection
The Prophet, A.P.
Bishop's University
CA BU BUArtColl-2003_016
Lewis, Stanley (1930-2006)
1 print : ink on paper ; 61 x 45.7 cm
Stanley Lewis, sculptor, photographer and internationally renowned art teacher, was born in Montréal in 1930. He trained at the School of Art and Design at the Montréal Museum of Fine Arts under such well-known Canadian artists as Arthur Lismer (1885-1969) and Jacques de Tonnancour (1917-2005). He graduated first in his class with Honours diploma in graphics, design and sculpture. Lewis is a Canadian pioneer in colour stone-cut prints, using a technique of printmaking in which he produces separate stone-cuts for each colour of the print and uses transparent inks to achieve subtle colour relationships. His works are held in many public collections such as the Montréal Museum of Fine Arts, the Museum of Québec, the National Gallery of Canada as well as in numerous private collections. Lewis died in 2006 at the Montréal Jewish General Hospital.
Gagnon, Guy
Signatures note
Lewis-82
Description record identifier
Digital object metadata
Access Copies
2003_016.jpg
2003_016_141.jpg
Digital object (Master) rights area
Digital object (Reference) rights area
Digital object (Thumbnail) rights area
Lewis, Stanley (1930-2006) (Creator)

redpajama_set_name: RedPajamaCommonCrawl


Hagerstown, MD-----The District III men's basketball Championship between ASA College and Hagerstown CC will be streamed online on live radio by WJEJ 1240 AM. The stream should begin at 6:50 PM with pregame talk followed by live play-by-play action starting at 7:00 PM.
CLICK HERE to listen in live on March 9th starting at 6:50 PM.


text:
PHOENIX INVESTORS HAS ANOTHER TENANT FOR FORMER TECUMSEH PLANT IN GRAFTON
Phoenix2019-12-24T04:48:34+00:00January 14th, 2019|Articles|
As reported on bizjournals.com , Written by Sean Ryan
Increasing demand from clients who need help with shipping operations prompted Midwest Assembly, Warehouse and Distribution to seek space to lease from Phoenix Investors in Grafton.
The West Bend company primarily provides third-party logistics services to other firms, and is looking to lease about 56,000 square feet in Grafton for those operations, said Tom Bichanich, Midwest Assembly operations manager. The long-term lease provides more space and would let the company consolidate operations in other leased buildings, he said.
"There's been an uptick over the last number of years in people needing outside storage and distribution," he said.
The space is in the former Tecumseh Products Co. engine plant at 900 North St. Phoenix Investors LLC and a partner bought the 341,944-square-foot, shuttered facility in 2016 and has been investing in upgrades and leasing space to new tenants.
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text:
/*
 * Copyright 2016 ScyllaDB
 */

#define BOOST_TEST_MODULE core

#include <boost/test/included/unit_test.hpp>
#include <seastar/core/weak_ptr.hh>

using namespace seastar;

class myclass : public weakly_referencable<myclass> {};

static_assert(std::is_nothrow_default_constructible_v<myclass>);

static_assert(std::is_nothrow_default_constructible_v<weak_ptr<myclass>>);
static_assert(std::is_nothrow_move_constructible_v<weak_ptr<myclass>>);

BOOST_AUTO_TEST_CASE(test_weak_ptr_is_empty_when_default_initialized) {
    weak_ptr<myclass> wp;
    BOOST_REQUIRE(!bool(wp));
}

BOOST_AUTO_TEST_CASE(test_weak_ptr_is_reset) {
    auto owning_ptr = std::make_unique<myclass>();
    weak_ptr<myclass> wp = owning_ptr->weak_from_this();
    BOOST_REQUIRE(bool(wp));
    BOOST_REQUIRE(&*wp == &*owning_ptr);
    owning_ptr = {};
    BOOST_REQUIRE(!bool(wp));
}

BOOST_AUTO_TEST_CASE(test_weak_ptr_can_be_moved) {
    auto owning_ptr = std::make_unique<myclass>();
    weak_ptr<myclass> wp1 = owning_ptr->weak_from_this();
    weak_ptr<myclass> wp2 = owning_ptr->weak_from_this();
    weak_ptr<myclass> wp3 = owning_ptr->weak_from_this();

    weak_ptr<myclass> wp3_moved;
    wp3_moved = std::move(wp3);
    weak_ptr<myclass> wp1_moved(std::move(wp1));
    auto wp2_moved = std::move(wp2);
    BOOST_REQUIRE(!bool(wp1));
    BOOST_REQUIRE(!bool(wp2));
    BOOST_REQUIRE(!bool(wp3));
    BOOST_REQUIRE(bool(wp1_moved));
    BOOST_REQUIRE(bool(wp2_moved));
    BOOST_REQUIRE(bool(wp3_moved));
    BOOST_REQUIRE(wp1_moved.get() == owning_ptr.get());
    BOOST_REQUIRE(wp2_moved.get() == owning_ptr.get());
    BOOST_REQUIRE(wp3_moved.get() == owning_ptr.get());

    owning_ptr = {};

    BOOST_REQUIRE(!bool(wp1_moved));
    BOOST_REQUIRE(!bool(wp2_moved));
    BOOST_REQUIRE(!bool(wp3_moved));
}

BOOST_AUTO_TEST_CASE(test_weak_ptr_can_be_copied) {
    auto owning_ptr = std::make_unique<myclass>();
    weak_ptr<myclass> wp1 = owning_ptr->weak_from_this();
    weak_ptr<myclass> wp2 = owning_ptr->weak_from_this();
    weak_ptr<myclass> wp3 = owning_ptr->weak_from_this();

    weak_ptr<myclass> wp1_copied(wp1);
    auto wp2_copied = wp2;
    weak_ptr<myclass> wp3_copied;
    wp3_copied = wp3;
    BOOST_REQUIRE(bool(wp1));
    BOOST_REQUIRE(bool(wp2));
    BOOST_REQUIRE(bool(wp3));
    BOOST_REQUIRE(bool(wp1_copied));
    BOOST_REQUIRE(bool(wp2_copied));
    BOOST_REQUIRE(bool(wp3_copied));

    BOOST_REQUIRE(wp1.get() == wp1_copied.get());
    BOOST_REQUIRE(wp2.get() == wp2_copied.get());
    BOOST_REQUIRE(wp3.get() == wp3_copied.get());

    owning_ptr = {};

    BOOST_REQUIRE(!bool(wp1));
    BOOST_REQUIRE(!bool(wp2));
    BOOST_REQUIRE(!bool(wp3));
    BOOST_REQUIRE(!bool(wp1_copied));
    BOOST_REQUIRE(!bool(wp2_copied));
    BOOST_REQUIRE(!bool(wp3_copied));
}

BOOST_AUTO_TEST_CASE(test_multipe_weak_ptrs) {
    auto owning_ptr = std::make_unique<myclass>();

    weak_ptr<myclass> wp1 = owning_ptr->weak_from_this();
    BOOST_REQUIRE(bool(wp1));
    BOOST_REQUIRE(&*wp1 == &*owning_ptr);

    weak_ptr<myclass> wp2 = owning_ptr->weak_from_this();
    BOOST_REQUIRE(bool(wp2));
    BOOST_REQUIRE(&*wp2 == &*owning_ptr);

    owning_ptr = {};

    BOOST_REQUIRE(!bool(wp1));
    BOOST_REQUIRE(!bool(wp2));
}

BOOST_AUTO_TEST_CASE(test_multipe_weak_ptrs_going_away_first) {
    auto owning_ptr = std::make_unique<myclass>();

    weak_ptr<myclass> wp1 = owning_ptr->weak_from_this();
    weak_ptr<myclass> wp2 = owning_ptr->weak_from_this();
    weak_ptr<myclass> wp3 = owning_ptr->weak_from_this();

    BOOST_REQUIRE(bool(wp1));
    BOOST_REQUIRE(bool(wp2));
    BOOST_REQUIRE(bool(wp3));

    wp2 = {};

    owning_ptr = std::make_unique<myclass>();

    BOOST_REQUIRE(!bool(wp1));
    BOOST_REQUIRE(!bool(wp2));
    BOOST_REQUIRE(!bool(wp3));

    wp1 = owning_ptr->weak_from_this();
    wp2 = owning_ptr->weak_from_this();
    wp3 = owning_ptr->weak_from_this();

    BOOST_REQUIRE(bool(wp1));
    BOOST_REQUIRE(bool(wp2));
    BOOST_REQUIRE(bool(wp3));

    wp3 = {};
    owning_ptr = std::make_unique<myclass>();

    BOOST_REQUIRE(!bool(wp1));
    BOOST_REQUIRE(!bool(wp2));
    BOOST_REQUIRE(!bool(wp3));

    wp1 = owning_ptr->weak_from_this();
    wp2 = owning_ptr->weak_from_this();
    wp3 = owning_ptr->weak_from_this();

    wp1 = {};
    wp3 = {};
    owning_ptr = std::make_unique<myclass>();

    BOOST_REQUIRE(!bool(wp1));
    BOOST_REQUIRE(!bool(wp2));
    BOOST_REQUIRE(!bool(wp3));
}

redpajama_set_name: RedPajamaGithub


text:
Combination Products Challenge Biopharma Manufacturers
Jill Wechsler
Jill Wechsler is Pharmaceutical Technology's Washington Editor, jillwechsler7@gmail.com.
Most new injectable drugs and biologics are being designed as combination therapies, presenting difficult regulatory and production issues for manufacturers.
Most new injectable drugs and biologics are being designed as combination therapies, presenting difficult regulatory and production issues for manufacturers. FDA policies are encouraging this trend, as seen in a rule issued in January 2013 designed to streamline quality-manufacturing standards for drug-device combination products. The policy defines the wide spectrum of regulated treatments now identified as combos, including patches, pumps, inhalers, nasal vaccines, targeted nanoparticles, as well as syringes and other delivery methods. They can be categorized as single entities (drug-eluting stents), co-packaged products (surgical kits), or cross-labeled drugs and devices and promise important benefits, such as reduced toxicity, enhanced individual response, facilitated delivery of multiple drugs, minimized waste, and greater patient adherence to prescribed treatment. These features are particularly important for developing more personalized medicines, which tend to target small patient populations and seek to justify higher prices based on enhanced value.
Biopharmaceutical companies are "transitioning overnight" into combination product companies, commented Dave Anderson, associate director for R&D quality at MedImmune/Astra Zeneca. Anderson noted at an October meeting in Washington, D.C. on combination products sponsored by the Drug Information Association (DIA) that delivery of multiple sclerosis therapy has evolved from just pre-filled syringes to more sophisticated injection devices that can guide the patient through the injection process in 26 languages, adjust needle speed and depth, and record time of injection.
Such product development often requires expanded preclinical testing programs with "human factor" testing to ensure that patients are able to use a device delivery system appropriately. Manufacturing controls and quality systems vary considerably for drug and device components, as well as product labeling and post-marketing requirements.
Streamlining questions
The stated aim of FDA's final rule on cGMPs for combination products is to encourage innovation and avoid duplicative requirements by allowing adherence to either drug GMPs or device quality systems, explained James (Barr) Weiner, associate director for policy of FDA's Office of Combination Products (OCP), at the DIA conference. Manufacturers may establish one set of GMP regulations as a foundation and incorporate provisions from other centers as appropriate. This "streamlined" approach applies to co-packaged and single-entity combos, but not to biologics regulated by the Center for Biologics Evaluation and Research (CBER), including vaccines, cellular therapies, and blood products.
FDA also indicates, however, that design controls for devices and release requirements for drugs apply to the whole combination product, which raises questions about just where streamlining occurs. A larger issue is how manufacturers should meet these requirements for thousands of legacy products, many developed years ago under different rules and often by different firms, creating gaps in production records, design information, plant inspection histories, and stability data for various components. Manufacturers expected to have some time to bring existing products into conformance with the new GMP rule, but faced a rude awakening from a January 2014 warning letter to Amgen citing inadequate design validation and documentation of product changes, as well as failure to establish purchase controls for suppliers and contractors for leading Amgen therapies now defined as combination products.
FDA is receiving many questions on the GMP rule, particularly on stability testing, reserve samples, calculation of yield, and design controls for combination products, agency staffers reported at the DIA conference. OCP has promised to issue guidance this year on how industry should address these issues, a document that evidently has become quite hefty. OCP can help manufacturers determine if a product is a combination and which FDA center should oversee its development program and market approval, based on primary mode of action. OCP received more than 800 requests for consultations in fiscal year 2013 and 330 combination product submissions.
At the same time, European regulatory authorities are revising EU medical device regulations, which may have a notable impact on combination product development. Drugs and medical devices are regulated differently in the EU and other regions; only the US has a special process for approving treatments as combination products. The development of more drugs with customized delivery systems, though, has brought to the fore multiple "borderline issues" involving EU classification and authorization of these products, which may lead to policy changes in Europe and elsewhere.
PharmTech Talk


text:
Q: Change edge size in igraph I want to plot a simple star graph in which the size of the edges depends on a score representing a difference of perception between the central node (e.g.,a leader) and the other nodes (e.g., its employees).
I succeeded in modifying the colors, the size of the node, the width of the edges but not the size of the latter.
How would you do?
library(igraph)
nodes <- read.csv("exemple_nodes.csv", header=T, as.is=T)
links <- read.csv("exemple_edges.csv", header=T, as.is=T)
st <- graph_from_data_frame(d=links, vertices=nodes, directed=T)
plot(st, vertex.color=V(st)$perception.type)

A: With the ggraph package and one of the geom_edge_ func' (e.g., geom_edge_arc, geom_edge_diagonal), in order to use the edge_width parameter, depending on a numeric value associated with the edges, in the edges-list (hereafter "value"). For example:
  ggraph::ggraph(st) +

    ggraph::geom_edge_diagonal(aes(edge_width = as.numeric(value)) )

In addition, ggraph allow you to specify other edges-parameters inside the geom_edge_ func', for example edge_alpha = as.numeric(value).

A: I think that what you want is to position the vertices so that you can control the length of the edges. If that is not what you want, then please explain what you mean by the "size" of the edges.
You do not provide your data so that we cannot use exactly your graph. I will use a generic star graph as an example. In order to control the placement of the vertices, you need to use the layout parameter. The basic function layout_as_star will place the first vertex at the center and the other vertices equally spaced around it at the same distance. Because this layout function places the center vertex at (0,0) and the remaining nodes on a unit circle around the center, it is easy to adjust it so that the distance of the outer vertices is controlled by a parameter. Just multiply the coordinates by the parameter and it will proportionally change the distance. I just make something up for the distances, but you can use your parameter.
## Make up perception parameter
set.seed(271828)
Perception = sample(4, 9, replace=T)
Perception
[1] 2 3 4 4 1 4 2 2 1

Now there is one weight for every outer vertex, but we need a weight for the central vertex. We don't want it to move so we use a weight of 1.
Weight = c(1, Perception)
LO = layout_as_star(S10)
LO = LO*Weight
plot(S10, layout=LO)

redpajama_set_name: RedPajamaStackExchange


Food, fun and joyous celebrations are in order for the Christmas season. Every December, our ElderSpan-managed residences host family Christmas parties. Each party includes delicious food, wonderful entertainment, and of course, special time spent with loved ones. Many thanks to all who joind in on the merry celebrations! We hope everyone had a fantastic holiday season.
To view photos from the All Saints Assisted Living Christmas party, please click here.
To view photos from the All Saints Memory Care Christmas party, please click here.
To view photos from the CrestRidge Christmas parties, please click here.
To view photos from the Meadow Ridge and Meadow View Christmas parties, please click here.
To view photos from the Meadows Christmas party, please click here.
To view photos from the Morningside Christmas party, please click here.
To view photos from the Park Place Christmas party, please click here.
To view photos from the Pines and Pine Villa Christmas parties, please click here.


Jessie loves doing her nails, and has quite the DIY nails spa at home. Join her and take care of her nails, apply masks, trim her nails, file and buff them, and then have fun doing her manicure.
You have to install Adobe Flash Player to play Jessie's DIY Nails Spa. Download Flash Player now.


Photographer: David Crenshaw, Scott Mackie.
On Feb 12, 2004, KCAL 9 Los Angeles ran a 3.5 minute segment during the 10pm TV news titled Prefab Dreaming? The piece included an interview with Jennifer Siegal, a visit to a modular home manufacturer's factory, a very brief appearance by fabprefab editor Michael Sylvester and images of several prefab projects.
Watch the KCAL prefab segment.
Requires Quicktime Player. Free download.
Media streaming generously provided by LiveModern.
The KCAL 9 segment presented images from a range of prefab projects which we outline below. Most of these projects are modular homes. Modular homes usually differ from mobile or manufactured homes in terms of the building codes they adhere to and the types of land on which they can be located.


text:
// +build linux,cgo,!static_build,journald

package journald

// #include <sys/types.h>
// #include <sys/poll.h>
// #include <systemd/sd-journal.h>
// #include <errno.h>
// #include <stdio.h>
// #include <stdlib.h>
// #include <string.h>
// #include <time.h>
// #include <unistd.h>
//
//static int get_message(sd_journal *j, const char **msg, size_t *length, int *partial)
//{
//	int rc;
//	size_t plength;
//	*msg = NULL;
//	*length = 0;
//	plength = strlen("CONTAINER_PARTIAL_MESSAGE=true");
//	rc = sd_journal_get_data(j, "CONTAINER_PARTIAL_MESSAGE", (const void **) msg, length);
//	*partial = ((rc == 0) && (*length == plength) && (memcmp(*msg, "CONTAINER_PARTIAL_MESSAGE=true", plength) == 0));
//	rc = sd_journal_get_data(j, "MESSAGE", (const void **) msg, length);
//	if (rc == 0) {
//		if (*length > 8) {
//			(*msg) += 8;
//			*length -= 8;
//		} else {
//			*msg = NULL;
//			*length = 0;
//			rc = -ENOENT;
//		}
//	}
//	return rc;
//}
//static int get_priority(sd_journal *j, int *priority)
//{
//	const void *data;
//	size_t i, length;
//	int rc;
//	*priority = -1;
//	rc = sd_journal_get_data(j, "PRIORITY", &data, &length);
//	if (rc == 0) {
//		if ((length > 9) && (strncmp(data, "PRIORITY=", 9) == 0)) {
//			*priority = 0;
//			for (i = 9; i < length; i++) {
//				*priority = *priority * 10 + ((const char *)data)[i] - '0';
//			}
//			if (length > 9) {
//				rc = 0;
//			}
//		}
//	}
//	return rc;
//}
//static int is_attribute_field(const char *msg, size_t length)
//{
//	static const struct known_field {
//		const char *name;
//		size_t length;
//	} fields[] = {
//		{"MESSAGE", sizeof("MESSAGE") - 1},
//		{"MESSAGE_ID", sizeof("MESSAGE_ID") - 1},
//		{"PRIORITY", sizeof("PRIORITY") - 1},
//		{"CODE_FILE", sizeof("CODE_FILE") - 1},
//		{"CODE_LINE", sizeof("CODE_LINE") - 1},
//		{"CODE_FUNC", sizeof("CODE_FUNC") - 1},
//		{"ERRNO", sizeof("ERRNO") - 1},
//		{"SYSLOG_FACILITY", sizeof("SYSLOG_FACILITY") - 1},
//		{"SYSLOG_IDENTIFIER", sizeof("SYSLOG_IDENTIFIER") - 1},
//		{"SYSLOG_PID", sizeof("SYSLOG_PID") - 1},
//		{"CONTAINER_NAME", sizeof("CONTAINER_NAME") - 1},
//		{"CONTAINER_ID", sizeof("CONTAINER_ID") - 1},
//		{"CONTAINER_ID_FULL", sizeof("CONTAINER_ID_FULL") - 1},
//		{"CONTAINER_TAG", sizeof("CONTAINER_TAG") - 1},
//	};
//	unsigned int i;
//	void *p;
//	if ((length < 1) || (msg[0] == '_') || ((p = memchr(msg, '=', length)) == NULL)) {
//		return -1;
//	}
//	length = ((const char *) p) - msg;
//	for (i = 0; i < sizeof(fields) / sizeof(fields[0]); i++) {
//		if ((fields[i].length == length) && (memcmp(fields[i].name, msg, length) == 0)) {
//			return -1;
//		}
//	}
//	return 0;
//}
//static int get_attribute_field(sd_journal *j, const char **msg, size_t *length)
//{
//	int rc;
//	*msg = NULL;
//	*length = 0;
//	while ((rc = sd_journal_enumerate_data(j, (const void **) msg, length)) > 0) {
//		if (is_attribute_field(*msg, *length) == 0) {
//			break;
//		}
//		rc = -ENOENT;
//	}
//	return rc;
//}
//static int wait_for_data_cancelable(sd_journal *j, int pipefd)
//{
//	struct pollfd fds[2];
//	uint64_t when = 0;
//	int timeout, jevents, i;
//	struct timespec ts;
//	uint64_t now;
//
//	memset(&fds, 0, sizeof(fds));
//	fds[0].fd = pipefd;
//	fds[0].events = POLLHUP;
//	fds[1].fd = sd_journal_get_fd(j);
//	if (fds[1].fd < 0) {
//		return fds[1].fd;
//	}
//
//	do {
//		jevents = sd_journal_get_events(j);
//		if (jevents < 0) {
//			return jevents;
//		}
//		fds[1].events = jevents;
//		sd_journal_get_timeout(j, &when);
//		if (when == -1) {
//			timeout = -1;
//		} else {
//			clock_gettime(CLOCK_MONOTONIC, &ts);
//			now = (uint64_t) ts.tv_sec * 1000000 + ts.tv_nsec / 1000;
//			timeout = when > now ? (int) ((when - now + 999) / 1000) : 0;
//		}
//		i = poll(fds, 2, timeout);
//		if ((i == -1) && (errno != EINTR)) {
//			/* An unexpected error. */
//			return (errno != 0) ? -errno : -EINTR;
//		}
//		if (fds[0].revents & POLLHUP) {
//			/* The close notification pipe was closed. */
//			return 0;
//		}
//		if (sd_journal_process(j) == SD_JOURNAL_APPEND) {
//			/* Data, which we might care about, was appended. */
//			return 1;
//		}
//	} while ((fds[0].revents & POLLHUP) == 0);
//	return 0;
//}
import "C"

import (
	"fmt"
	"strings"
	"time"
	"unsafe"

	"github.com/Sirupsen/logrus"
	"github.com/coreos/go-systemd/journal"
	"github.com/docker/docker/daemon/logger"
)

func (s *journald) Close() error {
	s.readers.mu.Lock()
	for reader := range s.readers.readers {
		reader.Close()
	}
	s.readers.mu.Unlock()
	return nil
}

func (s *journald) drainJournal(logWatcher *logger.LogWatcher, config logger.ReadConfig, j *C.sd_journal, oldCursor *C.char) *C.char {
	var msg, data, cursor *C.char
	var length C.size_t
	var stamp C.uint64_t
	var priority, partial C.int

	// Walk the journal from here forward until we run out of new entries.
drain:
	for {
		// Try not to send a given entry twice.
		if oldCursor != nil {
			for C.sd_journal_test_cursor(j, oldCursor) > 0 {
				if C.sd_journal_next(j) <= 0 {
					break drain
				}
			}
		}
		// Read and send the logged message, if there is one to read.
		i := C.get_message(j, &msg, &length, &partial)
		if i != -C.ENOENT && i != -C.EADDRNOTAVAIL {
			// Read the entry's timestamp.
			if C.sd_journal_get_realtime_usec(j, &stamp) != 0 {
				break
			}
			// Set up the time and text of the entry.
			timestamp := time.Unix(int64(stamp)/1000000, (int64(stamp)%1000000)*1000)
			line := C.GoBytes(unsafe.Pointer(msg), C.int(length))
			if partial == 0 {
				line = append(line, "\n"...)
			}
			// Recover the stream name by mapping
			// from the journal priority back to
			// the stream that we would have
			// assigned that value.
			source := ""
			if C.get_priority(j, &priority) != 0 {
				source = ""
			} else if priority == C.int(journal.PriErr) {
				source = "stderr"
			} else if priority == C.int(journal.PriInfo) {
				source = "stdout"
			}
			// Retrieve the values of any variables we're adding to the journal.
			attrs := make(map[string]string)
			C.sd_journal_restart_data(j)
			for C.get_attribute_field(j, &data, &length) > C.int(0) {
				kv := strings.SplitN(C.GoStringN(data, C.int(length)), "=", 2)
				attrs[kv[0]] = kv[1]
			}
			if len(attrs) == 0 {
				attrs = nil
			}
			// Send the log message.
			logWatcher.Msg <- &logger.Message{
				Line:      line,
				Source:    source,
				Timestamp: timestamp.In(time.UTC),
				Attrs:     attrs,
			}
		}
		// If we're at the end of the journal, we're done (for now).
		if C.sd_journal_next(j) <= 0 {
			break
		}
	}

	// free(NULL) is safe
	C.free(unsafe.Pointer(oldCursor))
	C.sd_journal_get_cursor(j, &cursor)
	return cursor
}

func (s *journald) followJournal(logWatcher *logger.LogWatcher, config logger.ReadConfig, j *C.sd_journal, pfd [2]C.int, cursor *C.char) *C.char {
	s.readers.mu.Lock()
	s.readers.readers[logWatcher] = logWatcher
	s.readers.mu.Unlock()
	go func() {
		// Keep copying journal data out until we're notified to stop
		// or we hit an error.
		status := C.wait_for_data_cancelable(j, pfd[0])
		for status == 1 {
			cursor = s.drainJournal(logWatcher, config, j, cursor)
			status = C.wait_for_data_cancelable(j, pfd[0])
		}
		if status < 0 {
			cerrstr := C.strerror(C.int(-status))
			errstr := C.GoString(cerrstr)
			fmtstr := "error %q while attempting to follow journal for container %q"
			logrus.Errorf(fmtstr, errstr, s.vars["CONTAINER_ID_FULL"])
		}
		// Clean up.
		C.close(pfd[0])
		s.readers.mu.Lock()
		delete(s.readers.readers, logWatcher)
		s.readers.mu.Unlock()
		C.sd_journal_close(j)
		close(logWatcher.Msg)
	}()
	// Wait until we're told to stop.
	select {
	case <-logWatcher.WatchClose():
		// Notify the other goroutine that its work is done.
		C.close(pfd[1])
	}

	return cursor
}

func (s *journald) readLogs(logWatcher *logger.LogWatcher, config logger.ReadConfig) {
	var j *C.sd_journal
	var cmatch, cursor *C.char
	var stamp C.uint64_t
	var sinceUnixMicro uint64
	var pipes [2]C.int

	// Get a handle to the journal.
	rc := C.sd_journal_open(&j, C.int(0))
	if rc != 0 {
		logWatcher.Err <- fmt.Errorf("error opening journal")
		close(logWatcher.Msg)
		return
	}
	// If we end up following the log, we can set the journal context
	// pointer and the channel pointer to nil so that we won't close them
	// here, potentially while the goroutine that uses them is still
	// running.  Otherwise, close them when we return from this function.
	following := false
	defer func(pfollowing *bool) {
		if !*pfollowing {
			C.sd_journal_close(j)
			close(logWatcher.Msg)
		}
	}(&following)
	// Remove limits on the size of data items that we'll retrieve.
	rc = C.sd_journal_set_data_threshold(j, C.size_t(0))
	if rc != 0 {
		logWatcher.Err <- fmt.Errorf("error setting journal data threshold")
		return
	}
	// Add a match to have the library do the searching for us.
	cmatch = C.CString("CONTAINER_ID_FULL=" + s.vars["CONTAINER_ID_FULL"])
	defer C.free(unsafe.Pointer(cmatch))
	rc = C.sd_journal_add_match(j, unsafe.Pointer(cmatch), C.strlen(cmatch))
	if rc != 0 {
		logWatcher.Err <- fmt.Errorf("error setting journal match")
		return
	}
	// If we have a cutoff time, convert it to Unix time once.
	if !config.Since.IsZero() {
		nano := config.Since.UnixNano()
		sinceUnixMicro = uint64(nano / 1000)
	}
	if config.Tail > 0 {
		lines := config.Tail
		// Start at the end of the journal.
		if C.sd_journal_seek_tail(j) < 0 {
			logWatcher.Err <- fmt.Errorf("error seeking to end of journal")
			return
		}
		if C.sd_journal_previous(j) < 0 {
			logWatcher.Err <- fmt.Errorf("error backtracking to previous journal entry")
			return
		}
		// Walk backward.
		for lines > 0 {
			// Stop if the entry time is before our cutoff.
			// We'll need the entry time if it isn't, so go
			// ahead and parse it now.
			if C.sd_journal_get_realtime_usec(j, &stamp) != 0 {
				break
			} else {
				// Compare the timestamp on the entry
				// to our threshold value.
				if sinceUnixMicro != 0 && sinceUnixMicro > uint64(stamp) {
					break
				}
			}
			lines--
			// If we're at the start of the journal, or
			// don't need to back up past any more entries,
			// stop.
			if lines == 0 || C.sd_journal_previous(j) <= 0 {
				break
			}
		}
	} else {
		// Start at the beginning of the journal.
		if C.sd_journal_seek_head(j) < 0 {
			logWatcher.Err <- fmt.Errorf("error seeking to start of journal")
			return
		}
		// If we have a cutoff date, fast-forward to it.
		if sinceUnixMicro != 0 && C.sd_journal_seek_realtime_usec(j, C.uint64_t(sinceUnixMicro)) != 0 {
			logWatcher.Err <- fmt.Errorf("error seeking to start time in journal")
			return
		}
		if C.sd_journal_next(j) < 0 {
			logWatcher.Err <- fmt.Errorf("error skipping to next journal entry")
			return
		}
	}
	cursor = s.drainJournal(logWatcher, config, j, nil)
	if config.Follow {
		// Allocate a descriptor for following the journal, if we'll
		// need one.  Do it here so that we can report if it fails.
		if fd := C.sd_journal_get_fd(j); fd < C.int(0) {
			logWatcher.Err <- fmt.Errorf("error opening journald follow descriptor: %q", C.GoString(C.strerror(-fd)))
		} else {
			// Create a pipe that we can poll at the same time as
			// the journald descriptor.
			if C.pipe(&pipes[0]) == C.int(-1) {
				logWatcher.Err <- fmt.Errorf("error opening journald close notification pipe")
			} else {
				cursor = s.followJournal(logWatcher, config, j, pipes, cursor)
				// Let followJournal handle freeing the journal context
				// object and closing the channel.
				following = true
			}
		}
	}

	C.free(unsafe.Pointer(cursor))
	return
}

func (s *journald) ReadLogs(config logger.ReadConfig) *logger.LogWatcher {
	logWatcher := logger.NewLogWatcher()
	go s.readLogs(logWatcher, config)
	return logWatcher
}


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to the escape hatch!: Arctic Monkeys New Video: Do I Wanna Know?
Arctic Monkeys New Video: Do I Wanna Know?
If you heard an ear piercing teenage girly like scream this morning, it was just me checking my Twitter feed. Out of nowhere and with very little publicity, the boys are back with the first single from their forthcoming album set to be released this fall. "Do I Wanna Know?" is a slow sludgy track that is reminiscent of the Humbug days and most recently the singles "R U Mine?" and "Electricity". I dig the song and the video is trippy as well. I can't wait until the album is released. However in the meantime, "simmer down and pucker up." I'll be listening and watching on a loop. I hope you enjoy both as well.
This tune is awesome. And you know what would be cool? If the Arctic Monkeys did a Bond song. They (and their fans?) might view that as selling out, but I think it would be awesome. That's actually what this song kind of reminds me of, even the video. Good stuff.
It's funny you say that. After hearing The Last Shadow Puppets, Turner's side gig, I said the same thing. TLSP sound even more like Bond than AM. I hope it happens.


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Forum » Writing Help / Help: Drafts and Critiques » Soulmates
Started by: MrWrong
Even death cannot do me part. Updated 16 Dec
MrWrong 13 Dec 2015 17:10
Another draft that requires reviews of the usual quality.
Link to sandbox is here. Associated tab is under "Soulmates".
Unfold Soulmates by MrWrong, 13 Dec 2015 17:10
Re: Soulmates
HotCocoaNerd 14 Dec 2015 19:12
SCP-# is to be kept in a modified cryogenic containment unit at Site-168, which is to be kept at a temperature range between 1 ºC and 5 ºC.
Since 1 ºC to 5 ºC is still above freezing, so I believe that would still leave the corpse prone to decomposition. Someone with more experience storing corpses can correct me on this if I'm wrong. Also, the word you're looking for is "cryonic" (preserving humans and animals at low temperatures) rather than "cryogenic" (the study of materials at low temperatures).
which is composed of a mixture cloud water droplets and ice crystals
which is composed of a mixture of cloud water droplets and ice crystals
The design is intended to decay the decomposition of the bodily soul (or 魄; pinyin: pò).
The design is intended to delay the decomposition of the bodily soul (or 魄; pinyin: pò).
SCP-#-A: Screw you! We're in an intimate discussion here!
This came off as a bit jarring. The sudden shift from "I hate this thing and get it off" to "stop interrupting our flirting" came across as unexpected in a bad way.
I like the base idea here, but I feel you can go a little further here. What you've provided us with so far is a good description, some backstory, and a brief intro to their relationship. I would encourage you to explore this relationship that you've set up further, possibly through more interviews or audio logs.
Unfold Re: Soulmates by HotCocoaNerd, 14 Dec 2015 19:12
Thanks for the read-through. I've checked Wiki for the morgue temperature and had it figured it.
Unfold Re: Soulmates by MrWrong, 15 Dec 2015 08:46
CumaeanSibyl 14 Dec 2015 19:33
I like the concept, but I think the description is unnecessarily wordy. Tightening it up would be a real improvement.
+ show block
– hide block
Due to the presence of multiple scars over these areas, it is hypothesised to be the result of amateur surgical procedures.
This feels a little awkward to me. "Scarring in these areas is consistent with amateur surgical procedures," or something.
SCP-# is known to produce sounds from its mouth despite the inability for its vocal folds to vibrate, implied to be its method of communication
Also awkward. "is known to produce" could just be "can produce." I also don't think "implied" is quite the right word here. "Apparently its method of communication" might be better.
In addition, it generates a fog originating from its navel
I'd take out "originating."
SCP-#-A is an incorporeal humanoid entity which manifests from the fog generated from SCP-#, resembling Chen's upper torso in terms of physical appearance
"Manifests from the fog generated from" is kind of wordy but I don't have a suggestion there. I would get rid of "in terms of physical appearance," because we can assume that its resemblance to Chen's upper torso is a matter of appearance.
possessing memories consistent with Chen and identifying itself as the aforementioned person
I think you should say first that it identifies itself as Chen and then that it possesses consistent memories. Try not to say "as the aforementioned person," though. "Him" should be fine, since there's no risk of pronoun confusion.
An urn – filled with ashes of cremated animals – was given to the kin of Chen Hun Po.
The dashes aren't really necessary.
I kind of agree with DreamwalkerFae about the last line of the interview, but it's mainly about the word choice of "intimate." "Personal" sounds a bit less weird. Then again, I'm not sure why the body sometimes excretes seminal fluid when talking with the spirit. If it's some kind of weird hate-love-hate thing, you need to make that clearer; if not, I'd get rid of the semen part.
Unfold Re: Soulmates by CumaeanSibyl, 14 Dec 2015 19:33
Well, imagine the body to be a clingy "friend with benefits". The ethereal and bodily souls (the hun and po, according to the Chinese) are kinda like a weird relationship, with the hun wanting to let go and be reincarnated and the po wanting the hun to stick around.
Re: Soulmates (Update)
Declaring draft update; added a second interview to wrap things up.
Unfold Re: Soulmates (Update) by MrWrong, 16 Dec 2015 12:22
/forum/t-1476946/soulmates#post-
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