java.lang.Object
- gov.nih.mipav.model.algorithms.ConfluentHypergeometric

public class ConfluentHypergeometric
extends java.lang.Object

This code calculates the confluent hypergeometric function of the first and second kinds For the confluent hypergeometric function of the first kind a typical usage for the routine requiring real parameters and a real argument would be:

 double result[] = new double[1];
 ConfluentHypergeometric ch = new ConfluentHypergeometric( -0.5, 1, 1.0, result);
 ch.run();
 Preferences.debug("Confluent hypergeomtric result = " + result[0] + "\n");
 UI.setDataText("Confluent hypergeometric result = " + result[0] + "\n");

For the confluent hypergeometric function of the first kind a typcial usage for the routine requiring real parameters and a complex argument would be:

 ConfluentHypergeometric cf = new ConfluentHypergeometric( -0.5, 1.0, realZ, imagZ, realResult, imagResult);
 ch.run();
 System.out.println("realResult[0] = " + realResult[0]);
 System.out.println("imagResult[0] = " + imagResult[0]);

For the confluent hypergeometric function of the first kind a typical usage for the routine allowing complex parameters and a complex argument would be:

 ConfluentHypergeometric cf;
 int Lnchf = 0;
 int ip = 700;
 double realResult[] = new double[1];
 double imagResult[] = new double[1];
 cf = new ConfluentHypergeometric( -0.5, 0.0, 1.0, 0.0, 10.0, 0.0, Lnchf, ip, realResult, imagResult);
 cf.run();
 System.out.println("realResult[0] = " + realResult[0]);
 System.out.println("imagResult[0] = " + imagResult[0]);

Since this complex routine allows large magnitude x, it should generally be used instead of the real version routine.

For the confluent hypergeometric function of the second kind a typical usage for the routine requiring real parameters and a real argument would be:

   double result[] = new double[1];
   int method[] = new int[1];
   ConfluentHypergeometric ch = new ConfluentHypergeometric(-0.5, 1, 1.0, result, method);
   ch.run();
   Preferences.debug("Confluent hypergeomtric result = " + result[0] +  " method = " + 
                       method[0] + \n");

For 1F1(-1/2, 1, x) tested with Shanjie Zhang and Jianming Jin Computation of Special Functions CHGM routine and ACM Algorithm 707 conhyp routine by Mark Nardin, W. F. Perger, and Atul Bhalla the results were:

From x = -706 to x = +184 the results of the 2 routines matched to at least 1 part in 1E5.
For x = -3055 to x = +184 the ACM routine seemed to give valid results.
For x
For x >= +185 the ACM result was frozen at 1.0E75.
The log result was also seen to oscillate for x
For x = -706 to x = +781 the CHGM routine seemed to give valid results.
For x = -707 to x = -745 the CHGM routine gave infinity and for x
For x >= +783 the CHGM routine gave a result of -infinity.
For 1F1(-1/2, 2, x) the results were very similar:
From x = -706 to x = +189 the results of the 2 routines matched to at least 1 part in 1E5.
From x = -3058 to x = +189 the ACM routine seemed to give valid results.
At x
For x > +189 the ACM result was frozen at 1.0E75.
For x = -706 to x = +791 the CHGM routine seemed to give valid results.
For x = -707 to x = -745 the CHGM routine gave infinity and for x
For x >= +792 the CHGM routine gave a result of -infinity.

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Revised 6/98

Excerpt from Appendix C of Computation of Special Functions by Shanjie Zhang and Jianming Jin:

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Field Summary

Fields
Modifier and Type	Field	Description
`private double`	`a`	Input parameter
`private double`	`b`	Input parameter
`private int`	`bit`
`static int`	`COMPLEX_VERSION`
`static int`	`CONFLUENT_HYPERGEOMETRIC_FIRST_KIND`	Confluent Hypergeometric Function of the First Kind.
`static int`	`CONFLUENT_HYPERGEOMETRIC_SECOND_KIND`	Confluent Hypergeometric Function of the Second Kind
`private double`	`imagA`
`private double`	`imagB`
`private double[]`	`imagResult`
`private double`	`imagZ`
`private int`	`ip`	Specifies how many array positions are desired (usually 10 is sufficient).
`private int`	`kind`	Tells whether confluent hypergeometric function is of first or second kind
`private int`	`L`	Size of the arrays
`private int`	`length`	Create arrays of size length+2
`private int`	`Lnchf`	Tells how the result should be represented A '0' will return the result in standard exponential form.
`private int[]`	`method`	Method used in calculating the confluent hypergeometric function of the second kind.
`static int`	`REAL_VERSION`
`private double`	`realA`	Input parameter
`private double`	`realB`	Input parameter
`static int`	`REALPARAM_COMPLEXARG_VERSION`
`private double[]`	`realResult`	outputted result
`private double`	`realZ`	Input argument
`private double[]`	`result`	Outputted result
`private double`	`rmax`	Number of digits required to represent the numbers with the required accuracy
`private int`	`version`	Tells whether real number of complex number version
`private double`	`x`	Input argument

Constructor Summary

Constructors
Constructor	Description
`ConfluentHypergeometric()`
`ConfluentHypergeometric(double a, double b, double x, double[] result, int[] method)`
`ConfluentHypergeometric(double a, double b, double realZ, double imagZ, double[] realResult, double[] imagResult)`
`ConfluentHypergeometric(double realA, double imagA, double realB, double imagB, double realZ, double imagZ, int Lnchf, int ip, double[] realResult, double[] imagResult)`
`ConfluentHypergeometric(int kind, double a, double b, double x, double[] result)`

Method Summary

All Methods Instance Methods Concrete Methods
Modifier and Type	Method	Description
`private void`	`aradd(double[] a, double[] b, double[] c)`	Accepts two arrays of numbers, a and b, and returns the sum of the array c.
`private void`	`armult(double[] a, double b, double[] c)`	Accepts array a and scalar b, and returns the product array c.
`private void`	`arsub(double[] a, double[] b, double[] c)`	Accepts two arrays and subtracts each element in the second array b from the element in the first array a and returns the solution c
`private void`	`arydiv(double[] ar, double[] ai, double[] br, double[] bi)`	Returns the complex number resulting from the division of four arrays, representing two complex numbers.
`private int`	`bits()`	Determines the number of significant figures of machine precision to arrive at the size of the array the numbers must be stored in to get the accuracy of the solution.
`private void`	`chgubi(int[] id)`
`private void`	`chguit(int[] id)`
`private void`	`chgul(int[] id)`
`private void`	`chgus(int[] id)`
`private void`	`cmpadd(double[] ar, double[] ai, double[] br, double[] bi, double[] cr, double[] ci)`	Takes two arrays representing one real and one imaginary part, and adds two arrays representing another complex number and returns two arrays holding the complex sum.
`private void`	`cmpmul(double[] ar, double[] ai, double br, double bi, double[] cr, double[] ci)`	Takes 2 arrays, ar and ai representing one real and one imaginary part, and multiplies it with br and bi, representing a complex number and returns the complex product
`void`	`complexTestFirstKind()`
`private void`	`conv12(double realCN, double imagCN, double[][] cae)`	Converts a real and imaginary number pair to a form of a 2x2 real array.
`private void`	`conv21(double[][] cae)`	Converts a number represented in a 2x2 real array to the form of a real and imaginary pair.
`private void`	`eadd(double n1, double e1, double n2, double e2, double[] nf, double[] ef)`	Returns the sum of two numbers in the form of a base and an exponent.
`private void`	`ecpdiv(double[][] a, double[][] b, double[][] c)`	Divides two numbers and returns the solution.
`private void`	`ecpmul(double[][] a, double[][] b, double[][] c)`	Multiplies two numbers which are each represented in the form of a two by two array and returns the solution in the same form
`private void`	`ediv(double n1, double e1, double n2, double e2, double[] nf, double[] ef)`	Returns the solution in the form of the base and exponent of the division of two exponential numbers.
`private void`	`emult(double n1, double e1, double n2, double e2, double[] nf, double[] ef)`	Takes one base and exponent and multplies it by another number's base and exponent to give the product in the form of base and exponent
`private void`	`esub(double n1, double e1, double n2, double e2, double[] nf, double[] ef)`	Returns the solution to the subtraction of two numbers in the form of base and exponent.
`void`	`finalize()`	Cleanup memory.
`private void`	`firstKindComplex()`	Port of Algorithm 707, Collected Algorithms from ACM.
`private void`	`firstKindComplexArgument()`	This code is a port of the FORTRAN routine CCHG from the book Computation of Special Functions by Shanjie Zhang and Jianming Jin, John Wiley & Sons, Inc., 1996, pp. 400-402.
`private void`	`firstKindRealArgument()`	This code is a port of the FORTRAN routine CHGM from the book Computation of Special Functions by Shanjie Zhang and Jianming Jin, John Wiley & Sons, Inc., 1996, pp. 398-400.
`void`	`realTestFirstKind()`
`void`	`realTestSecondKind()`
`void`	`run()`
`private void`	`secondKindRealArgument()`	This code is a port of the FORTRAN routine CHGU from the book Computation of Special Functions by Shanjie Zhang and Jianming Jin, John Wiley & Sons, Inc., 1996, pp. 403-405.
`private double`	`store(double x)`	This function forces its argument x to be stored in a memory location, thus providing a means of determining floating point number characteristics (such as the machine precision) when it is necessary to avoid computation in high precision registers.

Methods inherited from class java.lang.Object
clone, equals, getClass, hashCode, notify, notifyAll, toString, wait, wait, wait

- Field Detail
  - CONFLUENT_HYPERGEOMETRIC_FIRST_KIND
```
public static final int CONFLUENT_HYPERGEOMETRIC_FIRST_KIND
```
    Confluent Hypergeometric Function of the First Kind.
    
    See Also:
    
    Constant Field Values
  - CONFLUENT_HYPERGEOMETRIC_SECOND_KIND
```
public static final int CONFLUENT_HYPERGEOMETRIC_SECOND_KIND
```
    Confluent Hypergeometric Function of the Second Kind
    
    See Also:
    
    Constant Field Values
  - REAL_VERSION
```
public static final int REAL_VERSION
```
    See Also:
    
    Constant Field Values
  - COMPLEX_VERSION
```
public static final int COMPLEX_VERSION
```
    See Also:
    
    Constant Field Values
  - REALPARAM_COMPLEXARG_VERSION
```
public static final int REALPARAM_COMPLEXARG_VERSION
```
    See Also:
    
    Constant Field Values
  - kind
```
private int kind
```
    Tells whether confluent hypergeometric function is of first or second kind
  - version
```
private int version
```
    Tells whether real number of complex number version
  - a
```
private double a
```
    Input parameter
  - b
```
private double b
```
    Input parameter
  - x
```
private double x
```
    Input argument
  - result
```
private double[] result
```
    Outputted result
  - method
```
private int[] method
```
    Method used in calculating the confluent hypergeometric function of the second kind.
  - realA
```
private double realA
```
    Input parameter
  - imagA
```
private double imagA
```
  - realB
```
private double realB
```
    Input parameter
  - imagB
```
private double imagB
```
  - realZ
```
private double realZ
```
    Input argument
  - imagZ
```
private double imagZ
```
  - Lnchf
```
private int Lnchf
```
    Tells how the result should be represented A '0' will return the result in standard exponential form. A '1' will return the log of the result.
  - ip
```
private int ip
```
    Specifies how many array positions are desired (usually 10 is sufficient). More difficult cases may require this parameter to be 100 or more, and it is not always trivial to predict which cases these might be. One pragmatic approach is to simply run the evaluator using a value of 10, then increase ip, run the evaluator again and compare the returned results. Overwriting memory may occur if ip exceeds 776. Setting IP = 0 causes the program to estimate the number of array positions
  - realResult
```
private double[] realResult
```
    outputted result
  - imagResult
```
private double[] imagResult
```
  - length
```
private final int length
```
    Create arrays of size length+2
    
    See Also:
    
    Constant Field Values
  - L
```
private int L
```
    Size of the arrays
  - rmax
```
private double rmax
```
    Number of digits required to represent the numbers with the required accuracy
  - bit
```
private int bit
```
- Constructor Detail
  - ConfluentHypergeometric
```
public ConfluentHypergeometric()
```
  - ConfluentHypergeometric
```
public ConfluentHypergeometric(int kind,
                               double a,
                               double b,
                               double x,
                               double[] result)
```
    Parameters:
    
    a - input parameter
    
    b - input parameter
    
    x - input argument
    
    result - outputted result
  - ConfluentHypergeometric
```
public ConfluentHypergeometric(double a,
                               double b,
                               double x,
                               double[] result,
                               int[] method)
```
    Parameters:
    
    a - input parameter
    
    b - input parameter
    
    x - input argument, x > 0
    
    result - outputted result
    
    method - method code used
  - ConfluentHypergeometric
```
public ConfluentHypergeometric(double a,
                               double b,
                               double realZ,
                               double imagZ,
                               double[] realResult,
                               double[] imagResult)
```
    Parameters:
    
    a - input real parameter
    
    b - input real parameter
    
    realZ - input real part of argument
    
    imagZ - input imaginary part of argument
    
    realResult - real part of outputted result
    
    imagResult - imaginary part of outputted result
  - ConfluentHypergeometric
```
public ConfluentHypergeometric(double realA,
                               double imagA,
                               double realB,
                               double imagB,
                               double realZ,
                               double imagZ,
                               int Lnchf,
                               int ip,
                               double[] realResult,
                               double[] imagResult)
```
    Parameters:
    
    realA - Real part of first input parameter
    
    imagA - Imaginary part of first input parameter
    
    realB - Real part of second input parameter
    
    imagB - Imaginary part of second input parameter
    
    realZ - Real part of input argument
    
    imagZ - Imaginary part of input argument
    
    Lnchf - = 0 for standard result, = 1 for log of result
    
    ip - Number of array positions desired
    
    realResult - Real part of outputted result
    
    imagResult - Imaginary part of outputted result
- Method Detail
  - finalize
```
public void finalize()
              throws java.lang.Throwable
```
    Cleanup memory.
    
    Overrides:
    
    finalize in class java.lang.Object
    
    Throws:
    
    java.lang.Throwable - DOCUMENT ME!
  - run
```
public void run()
```
  - firstKindComplex
```
private void firstKindComplex()
```
    Port of Algorithm 707, Collected Algorithms from ACM. Original Work published in Transactions on Mathematical Software, Vol. 18. No. 3, September, 1992, pp. 345-349. This is a port of Solution to the Confluent Hypergeometric Function by Mark Nardin, W. F. Perger, and Atul Bhalla, Michigan Technological University, Copyright 1989. Description: A numerical evaluator for the confluent hypergeometric function for complex arguments with large magnitudes using a direct summation of the Kummer series. The method used allows an accuracy of up to thirteen decimal places through the use of large arrays and a single final division. The confluent hypergeometric function of the first kind is the solution to the equation: zf"(z) + (a-z)f'(z) - bf(z) = 0 Reference: Numerical evaluation of the confluent hypergeometric function for complex arguments of large magnitudes by Mark Nardin, W. F. Perger, and Atul Bhalla, Journal of Computational and Applied Mathematics, Vol. 39, 1992, pp. 193-200.
  - arydiv
```
private void arydiv(double[] ar,
                    double[] ai,
                    double[] br,
                    double[] bi)
```
    Returns the complex number resulting from the division of four arrays, representing two complex numbers. The number returned will be in one of two different forms. Either standard scientific or as the log of the number.
    
    Parameters:
    
    ar -
    
    ai -
    
    br -
    
    bi -
  - conv21
```
private void conv21(double[][] cae)
```
    Converts a number represented in a 2x2 real array to the form of a real and imaginary pair.
    
    Parameters:
    
    cae -
  - emult
```
private void emult(double n1,
                   double e1,
                   double n2,
                   double e2,
                   double[] nf,
                   double[] ef)
```
    Takes one base and exponent and multplies it by another number's base and exponent to give the product in the form of base and exponent
    
    Parameters:
    
    n1 -
    
    e1 -
    
    n2 -
    
    e2 -
    
    nf -
    
    ef -
  - ediv
```
private void ediv(double n1,
                  double e1,
                  double n2,
                  double e2,
                  double[] nf,
                  double[] ef)
```
    Returns the solution in the form of the base and exponent of the division of two exponential numbers.
    
    Parameters:
    
    n1 -
    
    e1 -
    
    n2 -
    
    e2 -
    
    nf -
    
    ef -
  - eadd
```
private void eadd(double n1,
                  double e1,
                  double n2,
                  double e2,
                  double[] nf,
                  double[] ef)
```
    Returns the sum of two numbers in the form of a base and an exponent.
    
    Parameters:
    
    n1 -
    
    e1 -
    
    n2 -
    
    e2 -
    
    nf -
    
    ef -
  - esub
```
private void esub(double n1,
                  double e1,
                  double n2,
                  double e2,
                  double[] nf,
                  double[] ef)
```
    Returns the solution to the subtraction of two numbers in the form of base and exponent.
    
    Parameters:
    
    n1 -
    
    e1 -
    
    n2 -
    
    e2 -
    
    nf -
    
    ef -
  - ecpmul
```
private void ecpmul(double[][] a,
                    double[][] b,
                    double[][] c)
```
    Multiplies two numbers which are each represented in the form of a two by two array and returns the solution in the same form
    
    Parameters:
    
    a -
    
    b -
    
    c -
  - ecpdiv
```
private void ecpdiv(double[][] a,
                    double[][] b,
                    double[][] c)
```
    Divides two numbers and returns the solution. All numbers are represented by a 2x2 array.
    
    Parameters:
    
    a -
    
    b -
    
    c -
  - conv12
```
private void conv12(double realCN,
                    double imagCN,
                    double[][] cae)
```
    Converts a real and imaginary number pair to a form of a 2x2 real array.
    
    Parameters:
    
    realCN -
    
    imagCN -
    
    cae -
  - cmpadd
```
private void cmpadd(double[] ar,
                    double[] ai,
                    double[] br,
                    double[] bi,
                    double[] cr,
                    double[] ci)
```
    Takes two arrays representing one real and one imaginary part, and adds two arrays representing another complex number and returns two arrays holding the complex sum. (CR, CI) = (AR+BR, AI+BI)
    
    Parameters:
    
    ar -
    
    ai -
    
    br -
    
    bi -
    
    cr -
    
    ci -
  - bits
```
private int bits()
```
    Determines the number of significant figures of machine precision to arrive at the size of the array the numbers must be stored in to get the accuracy of the solution.
  - store
```
private double store(double x)
```
    This function forces its argument x to be stored in a memory location, thus providing a means of determining floating point number characteristics (such as the machine precision) when it is necessary to avoid computation in high precision registers.
    
    Parameters:
    
    x - The value to be stored
    
    Returns:
    
    The value of x after it has been stored and possibly truncated or rounded to the double precision word length.
  - cmpmul
```
private void cmpmul(double[] ar,
                    double[] ai,
                    double br,
                    double bi,
                    double[] cr,
                    double[] ci)
```
    Takes 2 arrays, ar and ai representing one real and one imaginary part, and multiplies it with br and bi, representing a complex number and returns the complex product
    
    Parameters:
    
    ar -
    
    ai -
    
    br -
    
    bi -
    
    cr -
    
    ci -
  - armult
```
private void armult(double[] a,
                    double b,
                    double[] c)
```
    Accepts array a and scalar b, and returns the product array c.
    
    Parameters:
    
    a -
    
    b -
    
    c -
  - aradd
```
private void aradd(double[] a,
                   double[] b,
                   double[] c)
```
    Accepts two arrays of numbers, a and b, and returns the sum of the array c.
    
    Parameters:
    
    a -
    
    b -
    
    c -
  - arsub
```
private void arsub(double[] a,
                   double[] b,
                   double[] c)
```
    Accepts two arrays and subtracts each element in the second array b from the element in the first array a and returns the solution c
    
    Parameters:
    
    a -
    
    b -
    
    c -
  - complexTestFirstKind
```
public void complexTestFirstKind()
```
  - realTestFirstKind
```
public void realTestFirstKind()
```
  - firstKindRealArgument
```
private void firstKindRealArgument()
```
    This code is a port of the FORTRAN routine CHGM from the book Computation of Special Functions by Shanjie Zhang and Jianming Jin, John Wiley & Sons, Inc., 1996, pp. 398-400. It computes confluent hypergeometric functions of the first kind for real parameters and argument. It works well except for the case of a 0 and a >> 1 when x
    
    firstKindComplexArgument
    
    private void firstKindComplexArgument()
    
    This code is a port of the FORTRAN routine CCHG from the book Computation of Special Functions by Shanjie Zhang and Jianming Jin, John Wiley & Sons, Inc., 1996, pp. 400-402. It computes confluent hypergeometric functions of the first kind for real parameters and a complex argument. It works well except for the case of a 0 and a >> 1 when x
    
    realTestSecondKind
    
    public void realTestSecondKind()
    
    secondKindRealArgument
    
    private void secondKindRealArgument()
    
    This code is a port of the FORTRAN routine CHGU from the book Computation of Special Functions by Shanjie Zhang and Jianming Jin, John Wiley & Sons, Inc., 1996, pp. 403-405. It computes confluent hypergeometric functions of the second kind for real parameters and argument. It works well except for the case of a
    
    chgus
    
    private void chgus(int[] id)
    
    chgul
    
    private void chgul(int[] id)
    
    chgubi
    
    private void chgubi(int[] id)
    
    chguit
    
    private void chguit(int[] id)
    
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Class ConfluentHypergeometric

Field Summary

Constructor Summary

Method Summary

Methods inherited from class java.lang.Object

Field Detail

CONFLUENT_HYPERGEOMETRIC_FIRST_KIND

CONFLUENT_HYPERGEOMETRIC_SECOND_KIND

REAL_VERSION

COMPLEX_VERSION

REALPARAM_COMPLEXARG_VERSION

kind

version

a

b

x

result

method

realA

imagA

realB

imagB

realZ

imagZ

Lnchf

ip

realResult

imagResult

length

L

rmax

bit

Constructor Detail

ConfluentHypergeometric

ConfluentHypergeometric

ConfluentHypergeometric

ConfluentHypergeometric

ConfluentHypergeometric

Method Detail

finalize

run

firstKindComplex

arydiv

conv21

emult

ediv

eadd

esub

ecpmul

ecpdiv

conv12

cmpadd

bits

store

cmpmul

armult

aradd

arsub

complexTestFirstKind

realTestFirstKind

firstKindRealArgument

firstKindComplexArgument

realTestSecondKind

secondKindRealArgument

chgus

chgul

chgubi

chguit