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org.nd4j.linalg.cpu.complex.ComplexFloat Maven / Gradle / Ivy
/*
*
* * Copyright 2015 Skymind,Inc.
* *
* * Licensed under the Apache License, Version 2.0 (the "License");
* * you may not use this file except in compliance with the License.
* * You may obtain a copy of the License at
* *
* * http://www.apache.org/licenses/LICENSE-2.0
* *
* * Unless required by applicable law or agreed to in writing, software
* * distributed under the License is distributed on an "AS IS" BASIS,
* * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* * See the License for the specific language governing permissions and
* * limitations under the License.
*
*
*/
package org.nd4j.linalg.cpu.complex;
import org.nd4j.linalg.api.complex.IComplexDouble;
import org.nd4j.linalg.api.complex.IComplexFloat;
import org.nd4j.linalg.api.complex.IComplexNumber;
import org.nd4j.linalg.factory.Nd4j;
/**
* Complex float
*
* @author Adam Gibson
*/
public class ComplexFloat extends org.jblas.ComplexFloat implements IComplexFloat {
public final static ComplexFloat UNIT = new ComplexFloat(1, 0);
public final static ComplexFloat NEG = new ComplexFloat(-1, 0);
public final static ComplexFloat ZERO = new ComplexFloat(0, 0);
public ComplexFloat(org.jblas.ComplexFloat c) {
super(c.real(), c.imag());
}
public ComplexFloat(float real, float imag) {
super(real, imag);
}
public ComplexFloat(float real) {
super(real);
}
@Override
public IComplexNumber eqc(IComplexNumber num) {
double val = num.realComponent().doubleValue();
double imag = num.imaginaryComponent().doubleValue();
double otherVal = num.realComponent().doubleValue();
double otherImag = num.imaginaryComponent().doubleValue();
if (val == otherVal)
return Nd4j.createComplexNumber(1, 0);
else if (val != otherVal)
return Nd4j.createComplexNumber(0, 0);
else if (imag == otherImag)
return Nd4j.createComplexNumber(1, 0);
else
return Nd4j.createComplexNumber(0, 0);
}
@Override
public IComplexNumber neqc(IComplexNumber num) {
double val = num.realComponent().doubleValue();
double imag = num.imaginaryComponent().doubleValue();
double otherVal = num.realComponent().doubleValue();
double otherImag = num.imaginaryComponent().doubleValue();
if (val != otherVal)
return Nd4j.createComplexNumber(1, 0);
else if (val == otherVal)
return Nd4j.createComplexNumber(0, 0);
else if (imag != otherImag)
return Nd4j.createComplexNumber(1, 0);
else
return Nd4j.createComplexNumber(0, 0);
}
@Override
public IComplexNumber gt(IComplexNumber num) {
double val = num.realComponent().doubleValue();
double imag = num.imaginaryComponent().doubleValue();
double otherVal = num.realComponent().doubleValue();
double otherImag = num.imaginaryComponent().doubleValue();
if (val > otherVal)
return Nd4j.createComplexNumber(1, 0);
else if (val < otherVal)
return Nd4j.createComplexNumber(0, 0);
else if (imag > otherImag)
return Nd4j.createComplexNumber(1, 0);
else
return Nd4j.createComplexNumber(0, 0);
}
@Override
public IComplexNumber lt(IComplexNumber num) {
double val = num.realComponent().doubleValue();
double imag = num.imaginaryComponent().doubleValue();
double otherVal = num.realComponent().doubleValue();
double otherImag = num.imaginaryComponent().doubleValue();
if (val < otherVal)
return Nd4j.createComplexNumber(1, 0);
else if (val > otherVal)
return Nd4j.createComplexNumber(0, 0);
else if (imag < otherImag)
return Nd4j.createComplexNumber(1, 0);
else
return Nd4j.createComplexNumber(0, 0);
}
@Override
public IComplexNumber rsubi(IComplexNumber c) {
return rsubi(c, this);
}
@Override
public IComplexNumber set(IComplexNumber set) {
return set(set.realComponent(), set.imaginaryComponent());
}
@Override
public IComplexNumber rsubi(IComplexNumber a, IComplexNumber result) {
return result.set(a.sub(this));
}
/**
* Returns the argument of a complex number.
*/
@Override
public float arg() {
return super.arg();
}
/**
* Return the absolute value
*/
@Override
public float abs() {
return super.abs();
}
/**
* Convert to a double
*
* @return this complex number as a double
*/
@Override
public IComplexDouble asDouble() {
return Nd4j.createDouble(realComponent(), imaginaryComponent());
}
/**
* Convert to a float
*
* @return this complex number as a float
*/
@Override
public ComplexFloat asFloat() {
return this;
}
@Override
public ComplexFloat dup() {
return new ComplexFloat(realComponent(), imaginaryComponent());
}
@Override
public ComplexFloat conji() {
super.set(realComponent(), -imaginaryComponent());
return this;
}
@Override
public ComplexFloat conj() {
return dup().conji();
}
@Override
public IComplexNumber set(Number real, Number imag) {
super.set(real.floatValue(), imag.floatValue());
return this;
}
@Override
public IComplexNumber copy(IComplexNumber other) {
return other.set(this);
}
/**
* Add two complex numbers in-place
*
* @param c
* @param result
*/
@Override
public IComplexNumber addi(IComplexNumber c, IComplexNumber result) {
return result.set(result.realComponent().floatValue() + c.realComponent().floatValue(), result.imaginaryComponent().floatValue() + c.imaginaryComponent().floatValue());
}
/**
* Add two complex numbers in-place storing the result in this.
*
* @param c
*/
@Override
public IComplexNumber addi(IComplexNumber c) {
return addi(c, this);
}
/**
* Add two complex numbers.
*
* @param c
*/
@Override
public IComplexNumber add(IComplexNumber c) {
return dup().addi(c);
}
/**
* Add a realComponent number to a complex number in-place.
*
* @param a
* @param result
*/
@Override
public IComplexNumber addi(Number a, IComplexNumber result) {
return result.set(result.realComponent().floatValue() + a.floatValue(), result.imaginaryComponent().floatValue());
}
/**
* Add a realComponent number to complex number in-place, storing the result in this.
*
* @param c
*/
@Override
public IComplexNumber addi(Number c) {
return addi(c, this);
}
/**
* Add a realComponent number to a complex number.
*
* @param c
*/
@Override
public IComplexNumber add(Number c) {
return dup().addi(c);
}
/**
* Subtract two complex numbers, in-place
*
* @param c
* @param result
*/
@Override
public IComplexNumber subi(IComplexNumber c, IComplexNumber result) {
return result.set(result.realComponent().floatValue() - c.realComponent().floatValue(), result.imaginaryComponent().floatValue() - c.imaginaryComponent().floatValue());
}
@Override
public IComplexNumber subi(IComplexNumber c) {
return subi(c, this);
}
/**
* Subtract two complex numbers
*
* @param c
*/
@Override
public IComplexNumber sub(IComplexNumber c) {
return dup().subi(c);
}
@Override
public IComplexNumber subi(Number a, IComplexNumber result) {
return result.set(result.realComponent().floatValue() - a.floatValue(), result.imaginaryComponent().floatValue());
}
@Override
public IComplexNumber subi(Number a) {
return subi(a, this);
}
@Override
public IComplexNumber sub(Number r) {
return dup().subi(r);
}
@Override
public IComplexNumber rsub(IComplexNumber c) {
return dup().rsubi(c);
}
@Override
public IComplexNumber rsubi(Number a, IComplexNumber result) {
return result.set(a.doubleValue() - realComponent().doubleValue(), imag());
}
@Override
public IComplexNumber rsubi(Number a) {
return rsubi(a, this);
}
@Override
public IComplexNumber rsub(Number r) {
return dup().rsubi(r, this);
}
/**
* Multiply two complex numbers, inplace
*
* @param c
* @param result
*/
@Override
public IComplexNumber muli(IComplexNumber c, IComplexNumber result) {
float newR = real() * c.realComponent().floatValue() - imag() * c.imaginaryComponent().floatValue();
float newI = real() * c.imaginaryComponent().floatValue() + imag() * c.realComponent().floatValue();
result.set(newR, newI);
return result;
}
@Override
public IComplexNumber muli(IComplexNumber c) {
return muli(c, this);
}
/**
* Multiply two complex numbers
*
* @param c
*/
@Override
public IComplexNumber mul(IComplexNumber c) {
return dup().muli(c);
}
@Override
public IComplexNumber mul(Number v) {
return dup().muli(v);
}
@Override
public IComplexNumber muli(Number v, IComplexNumber result) {
return result.set(result.realComponent().floatValue() * v.floatValue(), result.imaginaryComponent().floatValue() * v.floatValue());
}
@Override
public IComplexNumber muli(Number v) {
return muli(v, this);
}
/**
* Divide two complex numbers
*
* @param c
*/
@Override
public IComplexNumber div(IComplexNumber c) {
return dup().divi(c);
}
/**
* Divide two complex numbers, in-place
*
* @param c
* @param result
*/
@Override
public IComplexNumber divi(IComplexNumber c, IComplexNumber result) {
float d = c.realComponent().floatValue() * c.realComponent().floatValue() + c.imaginaryComponent().floatValue() * c.imaginaryComponent().floatValue();
float newR = (real() * c.realComponent().floatValue() + imag() * c.imaginaryComponent().floatValue()) / d;
float newI = (imag() * c.realComponent().floatValue() - real() * c.imaginaryComponent().floatValue()) / d;
result.set(newR, newI);
return result;
}
@Override
public IComplexNumber divi(IComplexNumber c) {
return divi(c, this);
}
@Override
public IComplexNumber divi(Number v, IComplexNumber result) {
return result.set(result.realComponent().floatValue() / v.floatValue(), imaginaryComponent() / v.floatValue());
}
@Override
public IComplexNumber divi(Number v) {
return divi(v, this);
}
@Override
public IComplexNumber div(Number v) {
return dup().divi(v);
}
@Override
public IComplexNumber rdiv(IComplexNumber c) {
return dup().rdivi(c);
}
@Override
public IComplexNumber rdivi(IComplexNumber c, IComplexNumber result) {
return result.set(c.div(result));
}
@Override
public IComplexNumber rdivi(IComplexNumber c) {
return rdivi(c, this);
}
@Override
public IComplexNumber rdivi(Number v, IComplexNumber result) {
float d = result.realComponent().floatValue() * result.realComponent().floatValue() + result.imaginaryComponent().floatValue() * result.imaginaryComponent().floatValue();
return result.set(v.floatValue() * result.realComponent().floatValue() / d, -v.floatValue() * result.imaginaryComponent().floatValue() / d);
}
@Override
public IComplexNumber rdivi(Number v) {
return rdivi(v, this);
}
@Override
public IComplexNumber rdiv(Number v) {
return dup().rdivi(v);
}
@Override
public boolean eq(IComplexNumber c) {
return false;
}
@Override
public boolean ne(IComplexNumber c) {
return false;
}
@Override
public String toString() {
return super.toString();
}
@Override
public org.jblas.ComplexFloat set(float real, float imag) {
return super.set(real, imag);
}
@Override
public float real() {
return super.real();
}
@Override
public float imag() {
return super.imag();
}
@Override
public Float realComponent() {
return super.real();
}
@Override
public Float imaginaryComponent() {
return super.imag();
}
@Override
public org.jblas.ComplexFloat copy(org.jblas.ComplexFloat other) {
return super.copy(other);
}
/**
* Add two complex numbers in-place
*
* @param c
* @param result
*/
@Override
public org.jblas.ComplexFloat addi(org.jblas.ComplexFloat c, org.jblas.ComplexFloat result) {
return super.addi(c, result);
}
/**
* Add two complex numbers in-place storing the result in this.
*
* @param c
*/
@Override
public org.jblas.ComplexFloat addi(org.jblas.ComplexFloat c) {
return super.addi(c);
}
/**
* Add two complex numbers.
*
* @param c
*/
@Override
public org.jblas.ComplexFloat add(org.jblas.ComplexFloat c) {
return super.add(c);
}
/**
* Add a realComponent number to a complex number in-place.
*
* @param a
* @param result
*/
@Override
public org.jblas.ComplexFloat addi(float a, org.jblas.ComplexFloat result) {
return super.addi(a, result);
}
/**
* Add a realComponent number to complex number in-place, storing the result in this.
*
* @param c
*/
@Override
public org.jblas.ComplexFloat addi(float c) {
return super.addi(c);
}
/**
* Add a realComponent number to a complex number.
*
* @param c
*/
@Override
public org.jblas.ComplexFloat add(float c) {
return super.add(c);
}
/**
* Subtract two complex numbers, in-place
*
* @param c
* @param result
*/
@Override
public org.jblas.ComplexFloat subi(org.jblas.ComplexFloat c, org.jblas.ComplexFloat result) {
return super.subi(c, result);
}
@Override
public org.jblas.ComplexFloat subi(org.jblas.ComplexFloat c) {
return super.subi(c);
}
/**
* Subtract two complex numbers
*
* @param c
*/
@Override
public org.jblas.ComplexFloat sub(org.jblas.ComplexFloat c) {
return super.sub(c);
}
@Override
public org.jblas.ComplexFloat subi(float a, org.jblas.ComplexFloat result) {
return super.subi(a, result);
}
@Override
public org.jblas.ComplexFloat subi(float a) {
return super.subi(a);
}
@Override
public org.jblas.ComplexFloat sub(float r) {
return super.sub(r);
}
/**
* Multiply two complex numbers, inplace
*
* @param c
* @param result
*/
@Override
public org.jblas.ComplexFloat muli(org.jblas.ComplexFloat c, org.jblas.ComplexFloat result) {
return super.muli(c, result);
}
@Override
public org.jblas.ComplexFloat muli(org.jblas.ComplexFloat c) {
return super.muli(c);
}
/**
* Multiply two complex numbers
*
* @param c
*/
@Override
public org.jblas.ComplexFloat mul(org.jblas.ComplexFloat c) {
return super.mul(c);
}
@Override
public org.jblas.ComplexFloat mul(float v) {
return super.mul(v);
}
@Override
public org.jblas.ComplexFloat muli(float v, org.jblas.ComplexFloat result) {
return super.muli(v, result);
}
@Override
public org.jblas.ComplexFloat muli(float v) {
return super.muli(v);
}
/**
* Divide two complex numbers
*
* @param c
*/
@Override
public ComplexFloat div(org.jblas.ComplexFloat c) {
return dup().divi(c);
}
/**
* Divide two complex numbers, in-place
*
* @param c
* @param result
*/
@Override
public org.jblas.ComplexFloat divi(org.jblas.ComplexFloat c, org.jblas.ComplexFloat result) {
return super.divi(c, result);
}
@Override
public ComplexFloat divi(org.jblas.ComplexFloat c) {
super.divi(c);
return this;
}
@Override
public ComplexFloat divi(float v, org.jblas.ComplexFloat result) {
super.divi(v, result);
return this;
}
@Override
public ComplexFloat divi(float v) {
super.divi(v);
return this;
}
@Override
public ComplexFloat div(float v) {
super.div(v);
return this;
}
/**
* Return the absolute value
*/
@Override
public Float absoluteValue() {
return super.abs();
}
/**
* Returns the argument of a complex number.
*/
@Override
public Float complexArgument() {
return (float) Math.acos(realComponent() / absoluteValue());
}
@Override
public ComplexFloat invi() {
float d = realComponent() * realComponent() + imaginaryComponent() * imaginaryComponent();
set(realComponent() / d, -imaginaryComponent() / d);
return this;
}
@Override
public ComplexFloat inv() {
return dup().invi();
}
@Override
public ComplexFloat neg() {
return dup().negi();
}
@Override
public ComplexFloat negi() {
set(-realComponent(), -imaginaryComponent());
return this;
}
@Override
public ComplexFloat sqrt() {
float a = absoluteValue();
float s2 = (float) Math.sqrt(2);
float p = (float) Math.sqrt(a + realComponent()) / s2;
float q = (float) Math.sqrt(a - realComponent()) / s2 * Math.signum(imaginaryComponent());
return new ComplexFloat(p, q);
}
/**
* Comparing two floatComplex values.
*
* @param o
*/
@Override
public boolean equals(Object o) {
if (!(o instanceof IComplexNumber) || !(o instanceof org.jblas.ComplexFloat) && !(o instanceof org.jblas.ComplexDouble)) {
return false;
} else {
if (o instanceof org.jblas.ComplexFloat)
return super.equals(o);
else {
IComplexNumber num = (IComplexNumber) o;
return num.realComponent().doubleValue() == realComponent().doubleValue() && num.imaginaryComponent().doubleValue() == imaginaryComponent().doubleValue();
}
}
}
@Override
public boolean eq(org.jblas.ComplexFloat c) {
return super.eq(c);
}
@Override
public boolean ne(org.jblas.ComplexFloat c) {
return super.ne(c);
}
@Override
public boolean isZero() {
return super.isZero();
}
@Override
public boolean isReal() {
return imaginaryComponent() == 0.0;
}
@Override
public boolean isImag() {
return realComponent() == 0.0;
}
}
