TVecSmallInt.Divide Method

Overload List

#	Signature	Description
1	TMtxVecInt Divide(TMtxVecInt Src)	Divide calling object elements with Src elements.
	└ indexed: TMtxVecInt Divide(TMtxVecInt Src, Int32 SrcIndex, Int32 Index, Int32 Len)
2	TMtxVecInt Divide(TMtxVecInt Src1, TMtxVecInt Src2)	Divides coresponding elements in Src1 with Src2.
3	TMtxVecInt Divide(TMtxVecInt X, TMtxVecInt Y, TMtxVecInt Z)	self = X / (Y*Z)
	└ indexed: TMtxVecInt Divide(TMtxVecInt X, Int32 XIndex, TMtxVecInt Y, Int32 YIndex, TMtxVecInt Z, Int32 zIndex, Int32 Index, Int32 Len)
4	TMtxVecInt Divide(TMtxVecInt Src, Int32 Value)	Divide all Src vector elements with integer Value.
	└ indexed: TMtxVecInt Divide(TMtxVecInt Src, Int32 Value, Int32 SrcIndex, Int32 Index, Int32 Len)
5	TMtxVecInt Divide(Int32 Value)	Divide all calling vector elements with integer value.
	└ indexed: TMtxVecInt Divide(Int32 Value, Int32 Index, Int32 Len)
6	TMtxVecInt Divide(Int32 X, TMtxVecInt Y, TMtxVecInt Z)	self = xScalar / (Y*Z)
	└ indexed: TMtxVecInt Divide(Int32 X, TMtxVecInt Y, Int32 YIndex, TMtxVecInt Z, Int32 zIndex, Int32 Index, Int32 Len)
7	TMtxVecInt Divide(TMtxVecInt Src1, TMtxVecInt Src2, Int32 SrcIndex1, Int32 SrcIndex2, Int32 Index, Int32 Len)	Divide coresponding elements in Src1 with Src2.

Overload 1: TMtxVecInt Divide(TMtxVecInt Src)

Divide calling object elements with Src elements.

#	Name	Type	Description
1	Src	TMtxVecInt	source TVecInt or TMtxInt

Result: stored in self (calling object), returns self for chaining

Indexed: TMtxVecInt Divide(TMtxVecInt Src, Int32 SrcIndex, Int32 Index, Int32 Len)

Divide calling object elements with Src elements [SrcIndex..SrcIndex+Len-1].

#	Name	Type	Description
1	Src	TMtxVecInt	source TVecInt or TMtxInt
2	SrcIndex	Int32	source start index
3	Index	Int32	start index
4	Len	Int32	element count

Result: stored in self (calling object), returns self for chaining

Remarks:

Divide calling object elements [Index..Index+Len-1] with Src elements [SrcIndex..SrcIndex+Len-1]. An exception is raised if array borders are overrun.

Overload 2: TMtxVecInt Divide(TMtxVecInt Src1, TMtxVecInt Src2)

Divides coresponding elements in Src1 with Src2.

#	Name	Type	Description
1	Src1	TMtxVecInt	source TVecInt or TMtxInt
2	Src2	TMtxVecInt	source TVecInt or TMtxInt

Result: stored in self (calling object), returns self for chaining

Returns: the result of dividing Src1 values with coresponding Src2 values.

Overload 3: TMtxVecInt Divide(TMtxVecInt X, TMtxVecInt Y, TMtxVecInt Z)

Compute X / (Y*Z)

#	Name	Type	Description
1	X	TMtxVecInt	source TVecInt or TMtxInt
2	Y	TMtxVecInt	source TVecInt or TMtxInt
3	Z	TMtxVecInt	source TVecInt or TMtxInt

Result: stored in self (calling object), returns self for chaining

Remarks:

The following expression would also run at the same or higher speed, when passing Y also for the Z parameter:

X / (Y^2)

Indexed: TMtxVecInt Divide(TMtxVecInt X, Int32 XIndex, TMtxVecInt Y, Int32 YIndex, TMtxVecInt Z, Int32 zIndex, Int32 Index, Int32 Len)

Compute X/( Y*Z ) on sub array

#	Name	Type	Description
1	X	TMtxVecInt	source TVecInt or TMtxInt
2	XIndex	Int32	X start index
3	Y	TMtxVecInt	source TVecInt or TMtxInt
4	YIndex	Int32	Y start index
5	Z	TMtxVecInt	source TVecInt or TMtxInt
6	zIndex	Int32
7	Index	Int32	start index
8	Len	Int32	element count

Result: stored in self (calling object), returns self for chaining

Overload 4: TMtxVecInt Divide(TMtxVecInt Src, Int32 Value)

Divide all Src vector elements with integer Value.

#	Name	Type	Description
1	Src	TMtxVecInt	source TVecInt or TMtxInt
2	Value	Int32

Result: stored in self (calling object), returns self for chaining

Remarks:

Size of calling vector is adjusted automatically.

Indexed: TMtxVecInt Divide(TMtxVecInt Src, Int32 Value, Int32 SrcIndex, Int32 Index, Int32 Len)

Divide Src vector elements [SrcIndex..SrcIndex+Len-1] with integer Value.

#	Name	Type	Description
1	Src	TMtxVecInt	source TVecInt or TMtxInt
2	Value	Int32
3	SrcIndex	Int32	source start index
4	Index	Int32	start index
5	Len	Int32	element count

Result: stored in self (calling object), returns self for chaining

Remarks:

Divide Src elements [SrcIndex..SrcIndex+Len-1] with integer Value and store tje results in calling vector elements [Index..Index+Len-1]. An exception is raised if array borders are overrun.

Overload 5: TMtxVecInt Divide(Int32 Value)

Divide all calling vector elements with integer value.

#	Name	Type	Description
1	Value	Int32

Result: stored in self (calling object), returns self for chaining

Indexed: TMtxVecInt Divide(Int32 Value, Int32 Index, Int32 Len)

Divide calling vector elements [Index..Index+Len-1] with integer value.

#	Name	Type	Description
1	Value	Int32
2	Index	Int32	start index
3	Len	Int32	element count

Result: stored in self (calling object), returns self for chaining

Remarks:

An exception is raised if array borders are overrun.

Overload 6: TMtxVecInt Divide(Int32 X, TMtxVecInt Y, TMtxVecInt Z)

Compute xScalar / (Y*Z)

#	Name	Type	Description
1	X	Int32
2	Y	TMtxVecInt	source TVecInt or TMtxInt
3	Z	TMtxVecInt	source TVecInt or TMtxInt

Result: stored in self (calling object), returns self for chaining

Indexed: TMtxVecInt Divide(Int32 X, TMtxVecInt Y, Int32 YIndex, TMtxVecInt Z, Int32 zIndex, Int32 Index, Int32 Len)

Compute xScalar / (Y*Z) on sub array

#	Name	Type	Description
1	X	Int32
2	Y	TMtxVecInt	source TVecInt or TMtxInt
3	YIndex	Int32	Y start index
4	Z	TMtxVecInt	source TVecInt or TMtxInt
5	zIndex	Int32
6	Index	Int32	start index
7	Len	Int32	element count

Result: stored in self (calling object), returns self for chaining

Overload 7: TMtxVecInt Divide(TMtxVecInt Src1, TMtxVecInt Src2, Int32 SrcIndex1, Int32 SrcIndex2, Int32 Index, Int32 Len)

Divide coresponding elements in Src1 with Src2.

#	Name	Type	Description
1	Src1	TMtxVecInt	source TVecInt or TMtxInt
2	Src2	TMtxVecInt	source TVecInt or TMtxInt
3	SrcIndex1	Int32
4	SrcIndex2	Int32
5	Index	Int32	start index
6	Len	Int32	element count

Result: stored in self (calling object), returns self for chaining

Remarks:

Divide Src2 elements [Src2Index..Src2Index+Len-1] with corrresponding Src1 elements [Src1Index..Src1ndex+Len-1] and store the results in calling vector elements [Index..Index+Len-1]. An exception is raised if array borders are overrun.