clj-java-commons.core — io.github.jeremylcfr/clj-java-commons 1.1.0-SNAPSHOT

++ clj

-- clj

->bbyte-array clj

(->bbyte-array data)

Coerces to byte[][]. Builds a new instance unless input is already of this type

->byte-array clj

(->byte-array coll)

Coerces to byte[] but does not build a new instance when input is already as such

->ddouble-array clj

(->ddouble-array data)

Coerces to double[][]. Builds a new instance unless input is already of this type

->double-array clj

(->double-array coll)

Coerces to double[] but does not build a new instance when input is already as such

->ffloat-array clj

(->ffloat-array data)

Coerces to float[][]. Builds a new instance unless input is already of this type

->float-array clj

(->float-array coll)

Coerces to float[] but does not build a new instance when input is already as such

->iint-array clj

(->iint-array data)

Coerces to int[][]. Builds a new instance unless input is already of this type

->int-array clj

(->int-array coll)

Coerces to int[] but does not build a new instance when input is already as such

->llong-array clj

(->llong-array data)

Coerces to long[][]. Builds a new instance unless input is already of this type

->long-array clj

(->long-array coll)

Coerces to long[] but does not build a new instance when input is already as such

/ clj

(/ a)

(/ a b)

Overrides clojure.core to never return a clojure.lang Ratio without thinking about it. Allows a maximum of two arguments

ba= clj

(ba= a1 a2)

Byte array equality of content

bbyte-array clj

(bbyte-array data)

Coerces to byte[][]. Builds a new instance whatever type input is (especially byte[][]). Use ->bbyte-array if you wan to favor byte[][]

bbyte-array-class clj

2D byte array class pointer, i.e. byte[][]

bbyte-array? clj

(bbyte-array? obj)

Returns true when input is of type byte[][]

byte-array-class clj

Byte array class pointer, i.e. byte[]

byte-array? clj

(byte-array? obj)

Returns true when input is of type byte[]

da= clj

(da= a1 a2)

Double arrays equality of content

ddouble-array clj

(ddouble-array data)

Coerces to double[][]. Builds a new instance whatever type input is (especially double[][]). Use ->ddouble-array if you wan to favor double[][]

ddouble-array-class clj

2D double array pointer, i.e. double[][]

ddouble-array? clj

(ddouble-array? obj)

Returns true when input is of type double[][]

double-array-class clj

Double array class pointer, i.e. double[]

double-array? clj

(double-array? obj)

Returns true when input is a double[]

fa= clj

(fa= a1 a2)

Float arrays equality of content

ffloat-array clj

(ffloat-array data)

Coerces to float[][]. Builds a new instance whatever type input is (especially float[][]). Use ->ffloat-array if you wan to favor float[][]

ffloat-array-class clj

2D float array class pointer, i.e. float[][]

ffloat-array? clj

(ffloat-array? obj)

Returns true when input is of type float[][]

float-array-class clj

Float array class pointer, i.e. float[]

float-array? clj

(float-array? obj)

Returns true when input is of type float[]

ia= clj

(ia= a1 a2)

Int arrays equality of content

iint-array clj

(iint-array data)

Coerces to int[][]. Builds a new instance whatever type input is (especially int[][]). Use ->iint-array if you wan to favor int[][]

iint-array-class clj

2D int array pointer, i.e. int[][]

iint-array? clj

(iint-array? obj)

Returns true when input is of type int[][]

int-array-class clj

Int array class pointer, i.e. int[]

int-array? clj

(int-array? obj)

Returns true when input is of type int[]

la= clj

(la= a1 a2)

Long arrays equality of content

llong-array clj

(llong-array data)

Coerces to long[][]. Builds a new instance whatever type input is (especially long[][]). Use ->llong-array if you wan to favor long[][]

llong-array-class clj

2D long array class pointer, i.e. long[][]

llong-array? clj

(llong-array? obj)

Returns true when input is of type long[][]

long-array-class clj

Long array class pointer, i.e. long[]

long-array? clj

(long-array? obj)

Returns true when input is of type long[]

nan? clj

neg? clj

(neg? x)

Returns true when the input is negative (in R-)

not== clj

pos? clj

(pos? x)

Returns true when the input is positive (in R+)

strictly-neg? clj

Returns true when the input is strictly negative (in R-*)

strictly-pos? clj

Returns true when the input is strictly positive (in R+*)