api / koma.extensions

Package koma.extensions

Extensions for External Classes

Name	Summary
kotlin.Double
kotlin.Int

Functions

Name	Summary
all	funMatrix<Double>.all(f: (Double) ->Boolean):Boolean funMatrix<Float>.all(f: (Float) ->Boolean):Boolean fun <T>Matrix<T>.all(f: (T) ->Boolean):Boolean funMatrix<Int>.all(f: (Int) ->Boolean):Boolean Checks to see if all elements cause f to return true.
allClose	funMatrix<Double>.allClose(other:Matrix<Double>, rtol:Double= 1e-05, atol:Double= 1e-08):Boolean funMatrix<Float>.allClose(other:Matrix<Float>, rtol:Double= 1e-05, atol:Double= 1e-08):Boolean
any	funMatrix<Double>.any(f: (Double) ->Boolean):Boolean funMatrix<Float>.any(f: (Float) ->Boolean):Boolean fun <T>Matrix<T>.any(f: (T) ->Boolean):Boolean funMatrix<Int>.any(f: (Int) ->Boolean):Boolean Checks to see if any element in the matrix causes f to return true.
create	funNumericalNDArrayFactory<Byte>.create(vararg lengths:Int, filler: (idx:IntArray) ->Byte):NDArray<Byte> funNumericalNDArrayFactory<Double>.create(vararg lengths:Int, filler: (idx:IntArray) ->Double):NDArray<Double> funNumericalNDArrayFactory<Float>.create(vararg lengths:Int, filler: (idx:IntArray) ->Float):NDArray<Float> fun <T>GenericNDArrayFactory<T>.create(vararg lengths:Int, filler: (idx:IntArray) ->T):DefaultGenericNDArray<T> funNumericalNDArrayFactory<Int>.create(vararg lengths:Int, filler: (idx:IntArray) ->Int):NDArray<Int> funNumericalNDArrayFactory<Long>.create(vararg lengths:Int, filler: (idx:IntArray) ->Long):NDArray<Long> funNumericalNDArrayFactory<Short>.create(vararg lengths:Int, filler: (idx:IntArray) ->Short):NDArray<Short>
div	operator funNDArray<Byte>.div(other:Byte):NDArray<Byte> operator funNDArray<Double>.div(other:Double):NDArray<Double> operator funNDArray<Float>.div(other:Float):NDArray<Float> operator funNDArray<Int>.div(other:Int):NDArray<Int> operator funNDArray<Long>.div(other:Long):NDArray<Long> operator funNDArray<Short>.div(other:Short):NDArray<Short>
emul	infix funMatrix<Double>.emul(other:Matrix<Double>):Matrix<Double> Allow infix operator "a emul b" to be element-wise multiplication of two matrices.
fill	funMatrix<Double>.fill(f: (row:Int, col:Int) ->Double):Matrix<Double> funMatrix<Float>.fill(f: (row:Int, col:Int) ->Float):Matrix<Float> fun <T>Matrix<T>.fill(f: (row:Int, col:Int) ->T):Matrix<T> funMatrix<Int>.fill(f: (row:Int, col:Int) ->Int):Matrix<Int> Fills the matrix with the values returned by the input function.funNDArray<Byte>.fill(f: (idx:IntArray) ->Byte):NDArray<Byte> funNDArray<Double>.fill(f: (idx:IntArray) ->Double):NDArray<Double> funNDArray<Float>.fill(f: (idx:IntArray) ->Float):NDArray<Float> fun <T>NDArray<T>.fill(f: (idx:IntArray) ->T):NDArray<T> funNDArray<Int>.fill(f: (idx:IntArray) ->Int):NDArray<Int> funNDArray<Long>.fill(f: (idx:IntArray) ->Long):NDArray<Long> funNDArray<Short>.fill(f: (idx:IntArray) ->Short):NDArray<Short>
fillBoth	funNDArray<Byte>.fillBoth(f: (nd:IntArray, linear:Int) ->Byte):NDArray<Byte> funNDArray<Double>.fillBoth(f: (nd:IntArray, linear:Int) ->Double):NDArray<Double> funNDArray<Float>.fillBoth(f: (nd:IntArray, linear:Int) ->Float):NDArray<Float> fun <T>NDArray<T>.fillBoth(f: (nd:IntArray, linear:Int) ->T):NDArray<T> funNDArray<Int>.fillBoth(f: (nd:IntArray, linear:Int) ->Int):NDArray<Int> funNDArray<Long>.fillBoth(f: (nd:IntArray, linear:Int) ->Long):NDArray<Long> funNDArray<Short>.fillBoth(f: (nd:IntArray, linear:Int) ->Short):NDArray<Short>
fillLinear	funNDArray<Byte>.fillLinear(f: (idx:Int) ->Byte):NDArray<Byte> funNDArray<Double>.fillLinear(f: (idx:Int) ->Double):NDArray<Double> funNDArray<Float>.fillLinear(f: (idx:Int) ->Float):NDArray<Float> fun <T>NDArray<T>.fillLinear(f: (idx:Int) ->T):NDArray<T> funNDArray<Int>.fillLinear(f: (idx:Int) ->Int):NDArray<Int> funNDArray<Long>.fillLinear(f: (idx:Int) ->Long):NDArray<Long> funNDArray<Short>.fillLinear(f: (idx:Int) ->Short):NDArray<Short>
forEach	funMatrix<Double>.forEach(f: (Double) ->Unit):Unit funMatrix<Float>.forEach(f: (Float) ->Unit):Unit fun <T>Matrix<T>.forEach(f: (T) ->Unit):Unit funMatrix<Int>.forEach(f: (Int) ->Unit):Unit Passes each element in row major order into a function.funNDArray<Byte>.forEach(f: (ele:Byte) ->Unit):Unit funNDArray<Double>.forEach(f: (ele:Double) ->Unit):Unit funNDArray<Float>.forEach(f: (ele:Float) ->Unit):Unit fun <T>NDArray<T>.forEach(f: (ele:T) ->Unit):Unit funNDArray<Int>.forEach(f: (ele:Int) ->Unit):Unit funNDArray<Long>.forEach(f: (ele:Long) ->Unit):Unit funNDArray<Short>.forEach(f: (ele:Short) ->Unit):Unit Takes each element in a NDArray and passes them through f.
forEachIndexed	funMatrix<Double>.forEachIndexed(f: (row:Int, col:Int, ele:Double) ->Unit):Unit funMatrix<Float>.forEachIndexed(f: (row:Int, col:Int, ele:Float) ->Unit):Unit fun <T>Matrix<T>.forEachIndexed(f: (row:Int, col:Int, ele:T) ->Unit):Unit funMatrix<Int>.forEachIndexed(f: (row:Int, col:Int, ele:Int) ->Unit):Unit Passes each element in row major order into a function along with its index location.funNDArray<Byte>.forEachIndexed(f: (idx:Int, ele:Byte) ->Unit):Unit funNDArray<Double>.forEachIndexed(f: (idx:Int, ele:Double) ->Unit):Unit funNDArray<Float>.forEachIndexed(f: (idx:Int, ele:Float) ->Unit):Unit fun <T>NDArray<T>.forEachIndexed(f: (idx:Int, ele:T) ->Unit):Unit funNDArray<Int>.forEachIndexed(f: (idx:Int, ele:Int) ->Unit):Unit funNDArray<Long>.forEachIndexed(f: (idx:Int, ele:Long) ->Unit):Unit funNDArray<Short>.forEachIndexed(f: (idx:Int, ele:Short) ->Unit):Unit Takes each element in a NDArray and passes them through f. Index given to f is a linear index, depending on the underlying storage major dimension.
forEachIndexedN	funNDArray<Byte>.forEachIndexedN(f: (idx:IntArray, ele:Byte) ->Unit):Unit funNDArray<Double>.forEachIndexedN(f: (idx:IntArray, ele:Double) ->Unit):Unit funNDArray<Float>.forEachIndexedN(f: (idx:IntArray, ele:Float) ->Unit):Unit fun <T>NDArray<T>.forEachIndexedN(f: (idx:IntArray, ele:T) ->Unit):Unit funNDArray<Int>.forEachIndexedN(f: (idx:IntArray, ele:Int) ->Unit):Unit funNDArray<Long>.forEachIndexedN(f: (idx:IntArray, ele:Long) ->Unit):Unit funNDArray<Short>.forEachIndexedN(f: (idx:IntArray, ele:Short) ->Unit):Unit Takes each element in a NDArray and passes them through f. Index given to f is the full ND index of the element.
get	operator funMatrix<Double>.get(i:Int, j:Int):Double operator funMatrix<Float>.get(i:Int, j:Int):Float operator fun <T>Matrix<T>.get(i:Int, j:Int):T operator funMatrix<Int>.get(i:Int, j:Int):Int operator funNDArray<Byte>.get(vararg indices:IntRange):NDArray<Byte> operator funNDArray<Byte>.get(vararg indices:Int):Byte operator funNDArray<Double>.get(vararg indices:IntRange):NDArray<Double> operator funNDArray<Double>.get(vararg indices:Int):Double operator funNDArray<Float>.get(vararg indices:IntRange):NDArray<Float> operator funNDArray<Float>.get(vararg indices:Int):Float operator fun <T>NDArray<T>.get(vararg indices:IntRange):NDArray<T> operator fun <T>NDArray<T>.get(vararg indices:Int):T operator funNDArray<Int>.get(vararg indices:IntRange):NDArray<Int> operator funNDArray<Int>.get(vararg indices:Int):Int operator funNDArray<Long>.get(vararg indices:IntRange):NDArray<Long> operator funNDArray<Long>.get(vararg indices:Int):Long operator funNDArray<Short>.get(vararg indices:IntRange):NDArray<Short> operator funNDArray<Short>.get(vararg indices:Int):Shortoperator funMatrix<Double>.get(i:Int):Double operator funMatrix<Float>.get(i:Int):Float operator fun <T>Matrix<T>.get(i:Int):T operator funMatrix<Int>.get(i:Int):Int Gets the ith element in the matrix. If 2D, selects elements in row-major order.operator funMatrix<Double>.get(rows:IntRange, cols:IntRange):Matrix<Double> operator funMatrix<Float>.get(rows:IntRange, cols:IntRange):Matrix<Float> operator fun <T>Matrix<T>.get(rows:IntRange, cols:IntRange):Matrix<T> operator funMatrix<Int>.get(rows:IntRange, cols:IntRange):Matrix<Int> Allow slicing, e.g. matrix[1..2, 3..4]. Note that the range 1..2 is inclusive, so it will retrieve row 1 and 2. Use 1.until(2) for a non-inclusive range.operator funMatrix<Double>.get(rows:IntRange, cols:Int):Matrix<Double> operator funMatrix<Float>.get(rows:IntRange, cols:Int):Matrix<Float> operator fun <T>Matrix<T>.get(rows:IntRange, cols:Int):Matrix<T> operator funMatrix<Int>.get(rows:IntRange, cols:Int):Matrix<Int> Allows for slicing of the rows and selection of a single columnoperator funMatrix<Double>.get(rows:Int, cols:IntRange):Matrix<Double> operator funMatrix<Float>.get(rows:Int, cols:IntRange):Matrix<Float> operator fun <T>Matrix<T>.get(rows:Int, cols:IntRange):Matrix<T> operator funMatrix<Int>.get(rows:Int, cols:IntRange):Matrix<Int> Allows for slicing of the cols and selection of a single row
map	funMatrix<Double>.map(f: (Double) ->Double):Matrix<Double> funMatrix<Float>.map(f: (Float) ->Float):Matrix<Float> fun <T>Matrix<T>.map(f: (T) ->T):Matrix<T> funMatrix<Int>.map(f: (Int) ->Int):Matrix<Int> Takes each element in a matrix, passes them through f, and puts the output of f into an output matrix. This process is done in row-major order.funNDArray<Byte>.map(f: (Byte) ->Byte):NDArray<Byte> funNDArray<Double>.map(f: (Double) ->Double):NDArray<Double> funNDArray<Float>.map(f: (Float) ->Float):NDArray<Float> fun <T>NDArray<T>.map(f: (T) ->T):DefaultGenericNDArray<T> funNDArray<Int>.map(f: (Int) ->Int):NDArray<Int> funNDArray<Long>.map(f: (Long) ->Long):NDArray<Long> funNDArray<Short>.map(f: (Short) ->Short):NDArray<Short> Takes each element in a NDArray, passes them through f, and puts the output of f into an output NDArray.
mapIndexed	funMatrix<Double>.mapIndexed(f: (row:Int, col:Int, ele:Double) ->Double):Matrix<Double> funMatrix<Float>.mapIndexed(f: (row:Int, col:Int, ele:Float) ->Float):Matrix<Float> fun <T>Matrix<T>.mapIndexed(f: (row:Int, col:Int, ele:T) ->T):Matrix<T> funMatrix<Int>.mapIndexed(f: (row:Int, col:Int, ele:Int) ->Int):Matrix<Int> Takes each element in a matrix, passes them through f, and puts the output of f into an output matrix. This process is done in row-major order.funNDArray<Byte>.mapIndexed(f: (idx:Int, ele:Byte) ->Byte):NDArray<Byte> funNDArray<Double>.mapIndexed(f: (idx:Int, ele:Double) ->Double):NDArray<Double> funNDArray<Float>.mapIndexed(f: (idx:Int, ele:Float) ->Float):NDArray<Float> fun <T>NDArray<T>.mapIndexed(f: (idx:Int, ele:T) ->T):DefaultGenericNDArray<T> funNDArray<Int>.mapIndexed(f: (idx:Int, ele:Int) ->Int):NDArray<Int> funNDArray<Long>.mapIndexed(f: (idx:Int, ele:Long) ->Long):NDArray<Long> funNDArray<Short>.mapIndexed(f: (idx:Int, ele:Short) ->Short):NDArray<Short> Takes each element in a NDArray, passes them through f, and puts the output of f into an output NDArray. Index given to f is a linear index, depending on the underlying storage major dimension.
mapIndexedN	funNDArray<Byte>.mapIndexedN(f: (idx:IntArray, ele:Byte) ->Byte):NDArray<Byte> funNDArray<Double>.mapIndexedN(f: (idx:IntArray, ele:Double) ->Double):NDArray<Double> funNDArray<Float>.mapIndexedN(f: (idx:IntArray, ele:Float) ->Float):NDArray<Float> fun <T>NDArray<T>.mapIndexedN(f: (idx:IntArray, ele:T) ->T):NDArray<T> funNDArray<Int>.mapIndexedN(f: (idx:IntArray, ele:Int) ->Int):NDArray<Int> funNDArray<Long>.mapIndexedN(f: (idx:IntArray, ele:Long) ->Long):NDArray<Long> funNDArray<Short>.mapIndexedN(f: (idx:IntArray, ele:Short) ->Short):NDArray<Short> Takes each element in a NDArray, passes them through f, and puts the output of f into an output NDArray. Index given to f is the full ND index of the element.
minus	operator funNDArray<Byte>.minus(other:Byte):NDArray<Byte> operator funNDArray<Byte>.minus(other:NDArray<Byte>):NDArray<Byte> operator funNDArray<Double>.minus(other:Double):NDArray<Double> operator funNDArray<Double>.minus(other:NDArray<Double>):NDArray<Double> operator funNDArray<Float>.minus(other:Float):NDArray<Float> operator funNDArray<Float>.minus(other:NDArray<Float>):NDArray<Float> operator funNDArray<Int>.minus(other:Int):NDArray<Int> operator funNDArray<Int>.minus(other:NDArray<Int>):NDArray<Int> operator funNDArray<Long>.minus(other:Long):NDArray<Long> operator funNDArray<Long>.minus(other:NDArray<Long>):NDArray<Long> operator funNDArray<Short>.minus(other:Short):NDArray<Short> operator funNDArray<Short>.minus(other:NDArray<Short>):NDArray<Short>``operator funMatrix<Double>.minus(value:Int):Matrix<Double> Allow operator overloading with non-Double scalars
plus	operator funNDArray<Byte>.plus(other:Byte):NDArray<Byte> operator funNDArray<Byte>.plus(other:NDArray<Byte>):NDArray<Byte> operator funNDArray<Double>.plus(other:Double):NDArray<Double> operator funNDArray<Double>.plus(other:NDArray<Double>):NDArray<Double> operator funNDArray<Float>.plus(other:Float):NDArray<Float> operator funNDArray<Float>.plus(other:NDArray<Float>):NDArray<Float> operator funNDArray<Int>.plus(other:Int):NDArray<Int> operator funNDArray<Int>.plus(other:NDArray<Int>):NDArray<Int> operator funNDArray<Long>.plus(other:Long):NDArray<Long> operator funNDArray<Long>.plus(other:NDArray<Long>):NDArray<Long> operator funNDArray<Short>.plus(other:Short):NDArray<Short> operator funNDArray<Short>.plus(other:NDArray<Short>):NDArray<Short>``operator funMatrix<Double>.plus(value:Int):Matrix<Double> Allow operator overloading with non-Double scalars
pow	infix funNDArray<Byte>.pow(exponent:Int):NDArray<Byte> infix funNDArray<Double>.pow(exponent:Int):NDArray<Double> infix funNDArray<Float>.pow(exponent:Int):NDArray<Float> infix funNDArray<Int>.pow(exponent:Int):NDArray<Int> infix funNDArray<Long>.pow(exponent:Int):NDArray<Long> infix funNDArray<Short>.pow(exponent:Int):NDArray<Short>
reshape	funNDArray<Double>.reshape(rows:Int, cols:Int):Matrix<Double> funNDArray<Float>.reshape(rows:Int, cols:Int):Matrix<Float> fun <T>Matrix<T>.reshape(rows:Int, cols:Int):Matrix<T> funNDArray<Int>.reshape(rows:Int, cols:Int):Matrix<Int> Returns a new Matrix with the given shape, populated with the data in this array.funNDArray<Byte>.reshape(vararg dims:Int):NDArray<Byte> funNDArray<Double>.reshape(vararg dims:Int):NDArray<Double> funNDArray<Float>.reshape(vararg dims:Int):NDArray<Float> fun <T>NDArray<T>.reshape(vararg dims:Int):NDArray<T> funNDArray<Int>.reshape(vararg dims:Int):NDArray<Int> funNDArray<Long>.reshape(vararg dims:Int):NDArray<Long> funNDArray<Short>.reshape(vararg dims:Int):NDArray<Short> Returns a new NDArray with the given shape, populated with the data in this array.
set	operator funMatrix<Double>.set(i:Int, v:Double):Unit operator funMatrix<Float>.set(i:Int, v:Float):Unit operator fun <T>Matrix<T>.set(i:Int, v:T):Unit operator funMatrix<Int>.set(i:Int, v:Int):Unit Set the ith element in the matrix. If 2D, selects elements in row-major order.operator funMatrix<Double>.set(i:Int, j:Int, v:Double):Unit operator funMatrix<Double>.set(rows:IntRange, cols:IntRange, value:Double):Unit operator funMatrix<Double>.set(rows:Int, cols:IntRange, value:Double):Unit operator funMatrix<Double>.set(rows:IntRange, cols:Int, value:Double):Unit operator funMatrix<Double>.set(i:Int, v:Int):Unit operator funMatrix<Double>.set(i:Int, j:Int, v:Int):Unit operator funMatrix<Float>.set(i:Int, j:Int, v:Float):Unit operator funMatrix<Float>.set(rows:IntRange, cols:IntRange, value:Float):Unit operator funMatrix<Float>.set(rows:Int, cols:IntRange, value:Float):Unit operator funMatrix<Float>.set(rows:IntRange, cols:Int, value:Float):Unit operator funMatrix<Float>.set(i:Int, v:Int):Unit operator funMatrix<Float>.set(i:Int, j:Int, v:Int):Unit operator fun <T>Matrix<T>.set(i:Int, j:Int, v:T):Unit operator fun <T>Matrix<T>.set(rows:IntRange, cols:IntRange, value:T):Unit operator fun <T>Matrix<T>.set(rows:Int, cols:IntRange, value:T):Unit operator fun <T>Matrix<T>.set(rows:IntRange, cols:Int, value:T):Unit operator funMatrix<Int>.set(i:Int, j:Int, v:Int):Unit operator funMatrix<Int>.set(rows:IntRange, cols:IntRange, value:Int):Unit operator funMatrix<Int>.set(rows:Int, cols:IntRange, value:Int):Unit operator funMatrix<Int>.set(rows:IntRange, cols:Int, value:Int):Unit operator funNDArray<Byte>.set(vararg indices:Int, value:NDArray<Byte>):Unit operator funNDArray<Byte>.set(vararg indices:Int, value:Byte):Unit operator funNDArray<Double>.set(vararg indices:Int, value:NDArray<Double>):Unit operator funNDArray<Double>.set(vararg indices:Int, value:Double):Unit operator funNDArray<Float>.set(vararg indices:Int, value:NDArray<Float>):Unit operator funNDArray<Float>.set(vararg indices:Int, value:Float):Unit operator fun <T>NDArray<T>.set(vararg indices:Int, value:NDArray<T>):Unit operator fun <T>NDArray<T>.set(vararg indices:Int, value:T):Unit operator funNDArray<Int>.set(vararg indices:Int, value:NDArray<Int>):Unit operator funNDArray<Int>.set(vararg indices:Int, value:Int):Unit operator funNDArray<Long>.set(vararg indices:Int, value:NDArray<Long>):Unit operator funNDArray<Long>.set(vararg indices:Int, value:Long):Unit operator funNDArray<Short>.set(vararg indices:Int, value:NDArray<Short>):Unit operator funNDArray<Short>.set(vararg indices:Int, value:Short):Unitoperator funMatrix<Double>.set(rows:IntRange, cols:IntRange, value:Matrix<Double>):Unit operator funMatrix<Float>.set(rows:IntRange, cols:IntRange, value:Matrix<Float>):Unit operator fun <T>Matrix<T>.set(rows:IntRange, cols:IntRange, value:Matrix<T>):Unit operator funMatrix<Int>.set(rows:IntRange, cols:IntRange, value:Matrix<Int>):Unit Allow assignment to a slice, e.g. matrix[1..2, 3..4]=something. Note that the range 1..2 is inclusive, so it will retrieve row 1 and 2. Use 1.until(2) for a non-inclusive range.operator funMatrix<Double>.set(rows:Int, cols:IntRange, value:Matrix<Double>):Unit operator funMatrix<Float>.set(rows:Int, cols:IntRange, value:Matrix<Float>):Unit operator fun <T>Matrix<T>.set(rows:Int, cols:IntRange, value:Matrix<T>):Unit operator funMatrix<Int>.set(rows:Int, cols:IntRange, value:Matrix<Int>):Unit Allow assignment to a slice, e.g. matrix[2, 3..4]=something. Note that the range 3..4 is inclusive, so it will retrieve col 3 and 4. Use 1.until(2) for a non-inclusive range.operator funMatrix<Double>.set(rows:IntRange, cols:Int, value:Matrix<Double>):Unit operator funMatrix<Float>.set(rows:IntRange, cols:Int, value:Matrix<Float>):Unit operator fun <T>Matrix<T>.set(rows:IntRange, cols:Int, value:Matrix<T>):Unit operator funMatrix<Int>.set(rows:IntRange, cols:Int, value:Matrix<Int>):Unit Allow assignment to a slice, e.g. matrix[1..2, 3]=something. Note that the range 1..2 is inclusive, so it will retrieve row 1 and 2. Use 1.until(2) for a non-inclusive range.
times	operator funNDArray<Byte>.times(other:NDArray<Byte>):NDArray<Byte> operator funNDArray<Byte>.times(other:Byte):NDArray<Byte> operator funNDArray<Double>.times(other:NDArray<Double>):NDArray<Double> operator funNDArray<Double>.times(other:Double):NDArray<Double> operator funNDArray<Float>.times(other:NDArray<Float>):NDArray<Float> operator funNDArray<Float>.times(other:Float):NDArray<Float> operator funNDArray<Int>.times(other:NDArray<Int>):NDArray<Int> operator funNDArray<Int>.times(other:Int):NDArray<Int> operator funNDArray<Long>.times(other:NDArray<Long>):NDArray<Long> operator funNDArray<Long>.times(other:Long):NDArray<Long> operator funNDArray<Short>.times(other:NDArray<Short>):NDArray<Short> operator funNDArray<Short>.times(other:Short):NDArray<Short>``operator funMatrix<Double>.times(other:Int):Matrix<Double> Multiply a scalar by a matrix
toByteArray	funNDArray<Byte>.toByteArray():ByteArray Converts this NDArray into a one-dimensional ByteArray in row-major order.
toDoubleArray	funNDArray<Double>.toDoubleArray():DoubleArray Converts this NDArray into a one-dimensional DoubleArray in row-major order.
toFloatArray	funNDArray<Float>.toFloatArray():FloatArray Converts this NDArray into a one-dimensional FloatArray in row-major order.
toIntArray	funNDArray<Int>.toIntArray():IntArray Converts this NDArray into a one-dimensional IntArray in row-major order.
toLongArray	funNDArray<Long>.toLongArray():LongArray Converts this NDArray into a one-dimensional LongArray in row-major order.
toMatrix	funNDArray<Double>.toMatrix():Matrix<Double> funNDArray<Float>.toMatrix():Matrix<Float> funNDArray<Int>.toMatrix():Matrix<Int>
toMatrixOrNull	fun <T>NDArray<T>.toMatrixOrNull():Matrix<T>?
toShortArray	funNDArray<Short>.toShortArray():ShortArray Converts this NDArray into a one-dimensional ShortArray in row-major order.
toTypedArray	fun <T>NDArray<T>.toTypedArray():Array<T> Converts this NDArray into a one-dimensional Array in row-major order.
unaryMinus	operator funNDArray<Byte>.unaryMinus():NDArray<Byte> operator funNDArray<Double>.unaryMinus():NDArray<Double> operator funNDArray<Float>.unaryMinus():NDArray<Float> operator funNDArray<Int>.unaryMinus():NDArray<Int> operator funNDArray<Long>.unaryMinus():NDArray<Long> operator funNDArray<Short>.unaryMinus():NDArray<Short>