HaxeFoundation.haxe/std/java/lang/Double.hx

package java.lang;
/*
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* DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
*
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*
* This code is distributed in the hope that it will be useful, but WITHOUT
* ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
* FITNESS FOR A PARTICULAR PURPOSE.  See the GNU General Public License
* version 2 for more details (a copy is included in the LICENSE file that
* accompanied this code).
*
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*
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/**
* The {@code Double} class wraps a value of the primitive type
* {@code double} in an object. An object of type
* {@code Double} contains a single field whose type is
* {@code double}.
*
* <p>In addition, this class provides several methods for converting a
* {@code double} to a {@code String} and a
* {@code String} to a {@code double}, as well as other
* constants and methods useful when dealing with a
* {@code double}.
*
* @author  Lee Boynton
* @author  Arthur van Hoff
* @author  Joseph D. Darcy
* @since JDK1.0
*/
@:require(java0) extern class Double extends java.lang.Number implements java.lang.Comparable<Double>
{
	/**
	* A constant holding the positive infinity of type
	* {@code double}. It is equal to the value returned by
	* {@code Double.longBitsToDouble(0x7ff0000000000000L)}.
	*/
	public static var POSITIVE_INFINITY(default, null) : Float;

	/**
	* A constant holding the negative infinity of type
	* {@code double}. It is equal to the value returned by
	* {@code Double.longBitsToDouble(0xfff0000000000000L)}.
	*/
	public static var NEGATIVE_INFINITY(default, null) : Float;

	/**
	* A constant holding a Not-a-Number (NaN) value of type
	* {@code double}. It is equivalent to the value returned by
	* {@code Double.longBitsToDouble(0x7ff8000000000000L)}.
	*/
	public static var NaN(default, null) : Float;

	/**
	* A constant holding the largest positive finite value of type
	* {@code double},
	* (2-2<sup>-52</sup>)&middot;2<sup>1023</sup>.  It is equal to
	* the hexadecimal floating-point literal
	* {@code 0x1.fffffffffffffP+1023} and also equal to
	* {@code Double.longBitsToDouble(0x7fefffffffffffffL)}.
	*/
	public static var MAX_VALUE(default, null) : Float;

	/**
	* A constant holding the smallest positive normal value of type
	* {@code double}, 2<sup>-1022</sup>.  It is equal to the
	* hexadecimal floating-point literal {@code 0x1.0p-1022} and also
	* equal to {@code Double.longBitsToDouble(0x0010000000000000L)}.
	*
	* @since 1.6
	*/
	@:require(java6) public static var MIN_NORMAL(default, null) : Float;

	/**
	* A constant holding the smallest positive nonzero value of type
	* {@code double}, 2<sup>-1074</sup>. It is equal to the
	* hexadecimal floating-point literal
	* {@code 0x0.0000000000001P-1022} and also equal to
	* {@code Double.longBitsToDouble(0x1L)}.
	*/
	public static var MIN_VALUE(default, null) : Float;

	/**
	* Maximum exponent a finite {@code double} variable may have.
	* It is equal to the value returned by
	* {@code Math.getExponent(Double.MAX_VALUE)}.
	*
	* @since 1.6
	*/
	@:require(java6) public static var MAX_EXPONENT(default, null) : Int;

	/**
	* Minimum exponent a normalized {@code double} variable may
	* have.  It is equal to the value returned by
	* {@code Math.getExponent(Double.MIN_NORMAL)}.
	*
	* @since 1.6
	*/
	@:require(java6) public static var MIN_EXPONENT(default, null) : Int;

	/**
	* The number of bits used to represent a {@code double} value.
	*
	* @since 1.5
	*/
	@:require(java5) public static var SIZE(default, null) : Int;

	/**
	* The {@code Class} instance representing the primitive type
	* {@code double}.
	*
	* @since JDK1.1
	*/
	@:require(java1) public static var TYPE(default, null) : Class<Double>;

	/**
	* Returns a string representation of the {@code double}
	* argument. All characters mentioned below are ASCII characters.
	* <ul>
	* <li>If the argument is NaN, the result is the string
	*     "{@code NaN}".
	* <li>Otherwise, the result is a string that represents the sign and
	* magnitude (absolute value) of the argument. If the sign is negative,
	* the first character of the result is '{@code -}'
	* (<code>'&#92;u002D'</code>); if the sign is positive, no sign character
	* appears in the result. As for the magnitude <i>m</i>:
	* <ul>
	* <li>If <i>m</i> is infinity, it is represented by the characters
	* {@code "Infinity"}; thus, positive infinity produces the result
	* {@code "Infinity"} and negative infinity produces the result
	* {@code "-Infinity"}.
	*
	* <li>If <i>m</i> is zero, it is represented by the characters
	* {@code "0.0"}; thus, negative zero produces the result
	* {@code "-0.0"} and positive zero produces the result
	* {@code "0.0"}.
	*
	* <li>If <i>m</i> is greater than or equal to 10<sup>-3</sup> but less
	* than 10<sup>7</sup>, then it is represented as the integer part of
	* <i>m</i>, in decimal form with no leading zeroes, followed by
	* '{@code .}' (<code>'&#92;u002E'</code>), followed by one or
	* more decimal digits representing the fractional part of <i>m</i>.
	*
	* <li>If <i>m</i> is less than 10<sup>-3</sup> or greater than or
	* equal to 10<sup>7</sup>, then it is represented in so-called
	* "computerized scientific notation." Let <i>n</i> be the unique
	* integer such that 10<sup><i>n</i></sup> &le; <i>m</i> {@literal <}
	* 10<sup><i>n</i>+1</sup>; then let <i>a</i> be the
	* mathematically exact quotient of <i>m</i> and
	* 10<sup><i>n</i></sup> so that 1 &le; <i>a</i> {@literal <} 10. The
	* magnitude is then represented as the integer part of <i>a</i>,
	* as a single decimal digit, followed by '{@code .}'
	* (<code>'&#92;u002E'</code>), followed by decimal digits
	* representing the fractional part of <i>a</i>, followed by the
	* letter '{@code E}' (<code>'&#92;u0045'</code>), followed
	* by a representation of <i>n</i> as a decimal integer, as
	* produced by the method {@link Integer#toString(int)}.
	* </ul>
	* </ul>
	* How many digits must be printed for the fractional part of
	* <i>m</i> or <i>a</i>? There must be at least one digit to represent
	* the fractional part, and beyond that as many, but only as many, more
	* digits as are needed to uniquely distinguish the argument value from
	* adjacent values of type {@code double}. That is, suppose that
	* <i>x</i> is the exact mathematical value represented by the decimal
	* representation produced by this method for a finite nonzero argument
	* <i>d</i>. Then <i>d</i> must be the {@code double} value nearest
	* to <i>x</i>; or if two {@code double} values are equally close
	* to <i>x</i>, then <i>d</i> must be one of them and the least
	* significant bit of the significand of <i>d</i> must be {@code 0}.
	*
	* <p>To create localized string representations of a floating-point
	* value, use subclasses of {@link java.text.NumberFormat}.
	*
	* @param   d   the {@code double} to be converted.
	* @return a string representation of the argument.
	*/
	@:native('toString') @:overload public static function _toString(d : Float) : String;

	/**
	* Returns a hexadecimal string representation of the
	* {@code double} argument. All characters mentioned below
	* are ASCII characters.
	*
	* <ul>
	* <li>If the argument is NaN, the result is the string
	*     "{@code NaN}".
	* <li>Otherwise, the result is a string that represents the sign
	* and magnitude of the argument. If the sign is negative, the
	* first character of the result is '{@code -}'
	* (<code>'&#92;u002D'</code>); if the sign is positive, no sign
	* character appears in the result. As for the magnitude <i>m</i>:
	*
	* <ul>
	* <li>If <i>m</i> is infinity, it is represented by the string
	* {@code "Infinity"}; thus, positive infinity produces the
	* result {@code "Infinity"} and negative infinity produces
	* the result {@code "-Infinity"}.
	*
	* <li>If <i>m</i> is zero, it is represented by the string
	* {@code "0x0.0p0"}; thus, negative zero produces the result
	* {@code "-0x0.0p0"} and positive zero produces the result
	* {@code "0x0.0p0"}.
	*
	* <li>If <i>m</i> is a {@code double} value with a
	* normalized representation, substrings are used to represent the
	* significand and exponent fields.  The significand is
	* represented by the characters {@code "0x1."}
	* followed by a lowercase hexadecimal representation of the rest
	* of the significand as a fraction.  Trailing zeros in the
	* hexadecimal representation are removed unless all the digits
	* are zero, in which case a single zero is used. Next, the
	* exponent is represented by {@code "p"} followed
	* by a decimal string of the unbiased exponent as if produced by
	* a call to {@link Integer#toString(int) Integer.toString} on the
	* exponent value.
	*
	* <li>If <i>m</i> is a {@code double} value with a subnormal
	* representation, the significand is represented by the
	* characters {@code "0x0."} followed by a
	* hexadecimal representation of the rest of the significand as a
	* fraction.  Trailing zeros in the hexadecimal representation are
	* removed. Next, the exponent is represented by
	* {@code "p-1022"}.  Note that there must be at
	* least one nonzero digit in a subnormal significand.
	*
	* </ul>
	*
	* </ul>
	*
	* <table border>
	* <caption><h3>Examples</h3></caption>
	* <tr><th>Floating-point Value</th><th>Hexadecimal String</th>
	* <tr><td>{@code 1.0}</td> <td>{@code 0x1.0p0}</td>
	* <tr><td>{@code -1.0}</td>        <td>{@code -0x1.0p0}</td>
	* <tr><td>{@code 2.0}</td> <td>{@code 0x1.0p1}</td>
	* <tr><td>{@code 3.0}</td> <td>{@code 0x1.8p1}</td>
	* <tr><td>{@code 0.5}</td> <td>{@code 0x1.0p-1}</td>
	* <tr><td>{@code 0.25}</td>        <td>{@code 0x1.0p-2}</td>
	* <tr><td>{@code Double.MAX_VALUE}</td>
	*     <td>{@code 0x1.fffffffffffffp1023}</td>
	* <tr><td>{@code Minimum Normal Value}</td>
	*     <td>{@code 0x1.0p-1022}</td>
	* <tr><td>{@code Maximum Subnormal Value}</td>
	*     <td>{@code 0x0.fffffffffffffp-1022}</td>
	* <tr><td>{@code Double.MIN_VALUE}</td>
	*     <td>{@code 0x0.0000000000001p-1022}</td>
	* </table>
	* @param   d   the {@code double} to be converted.
	* @return a hex string representation of the argument.
	* @since 1.5
	* @author Joseph D. Darcy
	*/
	@:require(java5) @:overload public static function toHexString(d : Float) : String;

	/**
	* Returns a {@code Double} object holding the
	* {@code double} value represented by the argument string
	* {@code s}.
	*
	* <p>If {@code s} is {@code null}, then a
	* {@code NullPointerException} is thrown.
	*
	* <p>Leading and trailing whitespace characters in {@code s}
	* are ignored.  Whitespace is removed as if by the {@link
	* String#trim} method; that is, both ASCII space and control
	* characters are removed. The rest of {@code s} should
	* constitute a <i>FloatValue</i> as described by the lexical
	* syntax rules:
	*
	* <blockquote>
	* <dl>
	* <dt><i>FloatValue:</i>
	* <dd><i>Sign<sub>opt</sub></i> {@code NaN}
	* <dd><i>Sign<sub>opt</sub></i> {@code Infinity}
	* <dd><i>Sign<sub>opt</sub> FloatingPointLiteral</i>
	* <dd><i>Sign<sub>opt</sub> HexFloatingPointLiteral</i>
	* <dd><i>SignedInteger</i>
	* </dl>
	*
	* <p>
	*
	* <dl>
	* <dt><i>HexFloatingPointLiteral</i>:
	* <dd> <i>HexSignificand BinaryExponent FloatTypeSuffix<sub>opt</sub></i>
	* </dl>
	*
	* <p>
	*
	* <dl>
	* <dt><i>HexSignificand:</i>
	* <dd><i>HexNumeral</i>
	* <dd><i>HexNumeral</i> {@code .}
	* <dd>{@code 0x} <i>HexDigits<sub>opt</sub>
	*     </i>{@code .}<i> HexDigits</i>
	* <dd>{@code 0X}<i> HexDigits<sub>opt</sub>
	*     </i>{@code .} <i>HexDigits</i>
	* </dl>
	*
	* <p>
	*
	* <dl>
	* <dt><i>BinaryExponent:</i>
	* <dd><i>BinaryExponentIndicator SignedInteger</i>
	* </dl>
	*
	* <p>
	*
	* <dl>
	* <dt><i>BinaryExponentIndicator:</i>
	* <dd>{@code p}
	* <dd>{@code P}
	* </dl>
	*
	* </blockquote>
	*
	* where <i>Sign</i>, <i>FloatingPointLiteral</i>,
	* <i>HexNumeral</i>, <i>HexDigits</i>, <i>SignedInteger</i> and
	* <i>FloatTypeSuffix</i> are as defined in the lexical structure
	* sections of
	* <cite>The Java&trade; Language Specification</cite>,
	* except that underscores are not accepted between digits.
	* If {@code s} does not have the form of
	* a <i>FloatValue</i>, then a {@code NumberFormatException}
	* is thrown. Otherwise, {@code s} is regarded as
	* representing an exact decimal value in the usual
	* "computerized scientific notation" or as an exact
	* hexadecimal value; this exact numerical value is then
	* conceptually converted to an "infinitely precise"
	* binary value that is then rounded to type {@code double}
	* by the usual round-to-nearest rule of IEEE 754 floating-point
	* arithmetic, which includes preserving the sign of a zero
	* value.
	*
	* Note that the round-to-nearest rule also implies overflow and
	* underflow behaviour; if the exact value of {@code s} is large
	* enough in magnitude (greater than or equal to ({@link
	* #MAX_VALUE} + {@link Math#ulp(double) ulp(MAX_VALUE)}/2),
	* rounding to {@code double} will result in an infinity and if the
	* exact value of {@code s} is small enough in magnitude (less
	* than or equal to {@link #MIN_VALUE}/2), rounding to float will
	* result in a zero.
	*
	* Finally, after rounding a {@code Double} object representing
	* this {@code double} value is returned.
	*
	* <p> To interpret localized string representations of a
	* floating-point value, use subclasses of {@link
	* java.text.NumberFormat}.
	*
	* <p>Note that trailing format specifiers, specifiers that
	* determine the type of a floating-point literal
	* ({@code 1.0f} is a {@code float} value;
	* {@code 1.0d} is a {@code double} value), do
	* <em>not</em> influence the results of this method.  In other
	* words, the numerical value of the input string is converted
	* directly to the target floating-point type.  The two-step
	* sequence of conversions, string to {@code float} followed
	* by {@code float} to {@code double}, is <em>not</em>
	* equivalent to converting a string directly to
	* {@code double}. For example, the {@code float}
	* literal {@code 0.1f} is equal to the {@code double}
	* value {@code 0.10000000149011612}; the {@code float}
	* literal {@code 0.1f} represents a different numerical
	* value than the {@code double} literal
	* {@code 0.1}. (The numerical value 0.1 cannot be exactly
	* represented in a binary floating-point number.)
	*
	* <p>To avoid calling this method on an invalid string and having
	* a {@code NumberFormatException} be thrown, the regular
	* expression below can be used to screen the input string:
	*
	* <code>
	* <pre>
	*  final String Digits     = "(\\p{Digit}+)";
	*  final String HexDigits  = "(\\p{XDigit}+)";
	*  // an exponent is 'e' or 'E' followed by an optionally
	*  // signed decimal integer.
	*  final String Exp        = "[eE][+-]?"+Digits;
	*  final String fpRegex    =
	*      ("[\\x00-\\x20]*"+  // Optional leading "whitespace"
	*       "[+-]?(" + // Optional sign character
	*       "NaN|" +           // "NaN" string
	*       "Infinity|" +      // "Infinity" string
	*
	*       // A decimal floating-point string representing a finite positive
	*       // number without a leading sign has at most five basic pieces:
	*       // Digits . Digits ExponentPart FloatTypeSuffix
	*       //
	*       // Since this method allows integer-only strings as input
	*       // in addition to strings of floating-point literals, the
	*       // two sub-patterns below are simplifications of the grammar
	*       // productions from section 3.10.2 of
	*       // <cite>The Java&trade; Language Specification</cite>.
	*
	*       // Digits ._opt Digits_opt ExponentPart_opt FloatTypeSuffix_opt
	*       "((("+Digits+"(\\.)?("+Digits+"?)("+Exp+")?)|"+
	*
	*       // . Digits ExponentPart_opt FloatTypeSuffix_opt
	*       "(\\.("+Digits+")("+Exp+")?)|"+
	*
	*       // Hexadecimal strings
	*       "((" +
	*        // 0[xX] HexDigits ._opt BinaryExponent FloatTypeSuffix_opt
	*        "(0[xX]" + HexDigits + "(\\.)?)|" +
	*
	*        // 0[xX] HexDigits_opt . HexDigits BinaryExponent FloatTypeSuffix_opt
	*        "(0[xX]" + HexDigits + "?(\\.)" + HexDigits + ")" +
	*
	*        ")[pP][+-]?" + Digits + "))" +
	*       "[fFdD]?))" +
	*       "[\\x00-\\x20]*");// Optional trailing "whitespace"
	*
	*  if (Pattern.matches(fpRegex, myString))
	*      Double.valueOf(myString); // Will not throw NumberFormatException
	*  else {
	*      // Perform suitable alternative action
	*  }
	* </pre>
	* </code>
	*
	* @param      s   the string to be parsed.
	* @return     a {@code Double} object holding the value
	*             represented by the {@code String} argument.
	* @throws     NumberFormatException  if the string does not contain a
	*             parsable number.
	*/
	@:overload public static function valueOf(s : String) : Double;

	/**
	* Returns a {@code Double} instance representing the specified
	* {@code double} value.
	* If a new {@code Double} instance is not required, this method
	* should generally be used in preference to the constructor
	* {@link #Double(double)}, as this method is likely to yield
	* significantly better space and time performance by caching
	* frequently requested values.
	*
	* @param  d a double value.
	* @return a {@code Double} instance representing {@code d}.
	* @since  1.5
	*/
	@:require(java5) @:overload public static function valueOf(d : Float) : Double;

	/**
	* Returns a new {@code double} initialized to the value
	* represented by the specified {@code String}, as performed
	* by the {@code valueOf} method of class
	* {@code Double}.
	*
	* @param  s   the string to be parsed.
	* @return the {@code double} value represented by the string
	*         argument.
	* @throws NullPointerException  if the string is null
	* @throws NumberFormatException if the string does not contain
	*         a parsable {@code double}.
	* @see    java.lang.Double#valueOf(String)
	* @since 1.2
	*/
	@:require(java2) @:overload public static function parseDouble(s : String) : Float;

	/**
	* Returns {@code true} if the specified number is a
	* Not-a-Number (NaN) value, {@code false} otherwise.
	*
	* @param   v   the value to be tested.
	* @return  {@code true} if the value of the argument is NaN;
	*          {@code false} otherwise.
	*/
	@:native('isNaN') @:overload public static function _isNaN(v : Float) : Bool;

	/**
	* Returns {@code true} if the specified number is infinitely
	* large in magnitude, {@code false} otherwise.
	*
	* @param   v   the value to be tested.
	* @return  {@code true} if the value of the argument is positive
	*          infinity or negative infinity; {@code false} otherwise.
	*/
	@:native('isInfinite') @:overload public static function _isInfinite(v : Float) : Bool;

	/**
	* Constructs a newly allocated {@code Double} object that
	* represents the primitive {@code double} argument.
	*
	* @param   value   the value to be represented by the {@code Double}.
	*/
	@:overload public function new(value : Float) : Void;

	/**
	* Constructs a newly allocated {@code Double} object that
	* represents the floating-point value of type {@code double}
	* represented by the string. The string is converted to a
	* {@code double} value as if by the {@code valueOf} method.
	*
	* @param  s  a string to be converted to a {@code Double}.
	* @throws    NumberFormatException  if the string does not contain a
	*            parsable number.
	* @see       java.lang.Double#valueOf(java.lang.String)
	*/
	@:overload public function new(s : String) : Void;

	/**
	* Returns {@code true} if this {@code Double} value is
	* a Not-a-Number (NaN), {@code false} otherwise.
	*
	* @return  {@code true} if the value represented by this object is
	*          NaN; {@code false} otherwise.
	*/
	@:overload public function isNaN() : Bool;

	/**
	* Returns {@code true} if this {@code Double} value is
	* infinitely large in magnitude, {@code false} otherwise.
	*
	* @return  {@code true} if the value represented by this object is
	*          positive infinity or negative infinity;
	*          {@code false} otherwise.
	*/
	@:overload public function isInfinite() : Bool;

	/**
	* Returns a string representation of this {@code Double} object.
	* The primitive {@code double} value represented by this
	* object is converted to a string exactly as if by the method
	* {@code toString} of one argument.
	*
	* @return  a {@code String} representation of this object.
	* @see java.lang.Double#toString(double)
	*/
	@:overload public function toString() : String;

	/**
	* Returns the value of this {@code Double} as a {@code byte} (by
	* casting to a {@code byte}).
	*
	* @return  the {@code double} value represented by this object
	*          converted to type {@code byte}
	* @since JDK1.1
	*/
	@:require(java1) @:overload override public function byteValue() : java.StdTypes.Int8;

	/**
	* Returns the value of this {@code Double} as a
	* {@code short} (by casting to a {@code short}).
	*
	* @return  the {@code double} value represented by this object
	*          converted to type {@code short}
	* @since JDK1.1
	*/
	@:require(java1) @:overload override public function shortValue() : java.StdTypes.Int16;

	/**
	* Returns the value of this {@code Double} as an
	* {@code int} (by casting to type {@code int}).
	*
	* @return  the {@code double} value represented by this object
	*          converted to type {@code int}
	*/
	@:overload override public function intValue() : Int;

	/**
	* Returns the value of this {@code Double} as a
	* {@code long} (by casting to type {@code long}).
	*
	* @return  the {@code double} value represented by this object
	*          converted to type {@code long}
	*/
	@:overload override public function longValue() : haxe.Int64;

	/**
	* Returns the {@code float} value of this
	* {@code Double} object.
	*
	* @return  the {@code double} value represented by this object
	*          converted to type {@code float}
	* @since JDK1.0
	*/
	@:require(java0) @:overload override public function floatValue() : Single;

	/**
	* Returns the {@code double} value of this
	* {@code Double} object.
	*
	* @return the {@code double} value represented by this object
	*/
	@:overload override public function doubleValue() : Float;

	/**
	* Returns a hash code for this {@code Double} object. The
	* result is the exclusive OR of the two halves of the
	* {@code long} integer bit representation, exactly as
	* produced by the method {@link #doubleToLongBits(double)}, of
	* the primitive {@code double} value represented by this
	* {@code Double} object. That is, the hash code is the value
	* of the expression:
	*
	* <blockquote>
	*  {@code (int)(v^(v>>>32))}
	* </blockquote>
	*
	* where {@code v} is defined by:
	*
	* <blockquote>
	*  {@code long v = Double.doubleToLongBits(this.doubleValue());}
	* </blockquote>
	*
	* @return  a {@code hash code} value for this object.
	*/
	@:overload public function hashCode() : Int;

	/**
	* Compares this object against the specified object.  The result
	* is {@code true} if and only if the argument is not
	* {@code null} and is a {@code Double} object that
	* represents a {@code double} that has the same value as the
	* {@code double} represented by this object. For this
	* purpose, two {@code double} values are considered to be
	* the same if and only if the method {@link
	* #doubleToLongBits(double)} returns the identical
	* {@code long} value when applied to each.
	*
	* <p>Note that in most cases, for two instances of class
	* {@code Double}, {@code d1} and {@code d2}, the
	* value of {@code d1.equals(d2)} is {@code true} if and
	* only if
	*
	* <blockquote>
	*  {@code d1.doubleValue() == d2.doubleValue()}
	* </blockquote>
	*
	* <p>also has the value {@code true}. However, there are two
	* exceptions:
	* <ul>
	* <li>If {@code d1} and {@code d2} both represent
	*     {@code Double.NaN}, then the {@code equals} method
	*     returns {@code true}, even though
	*     {@code Double.NaN==Double.NaN} has the value
	*     {@code false}.
	* <li>If {@code d1} represents {@code +0.0} while
	*     {@code d2} represents {@code -0.0}, or vice versa,
	*     the {@code equal} test has the value {@code false},
	*     even though {@code +0.0==-0.0} has the value {@code true}.
	* </ul>
	* This definition allows hash tables to operate properly.
	* @param   obj   the object to compare with.
	* @return  {@code true} if the objects are the same;
	*          {@code false} otherwise.
	* @see java.lang.Double#doubleToLongBits(double)
	*/
	@:overload public function equals(obj : Dynamic) : Bool;

	/**
	* Returns a representation of the specified floating-point value
	* according to the IEEE 754 floating-point "double
	* format" bit layout.
	*
	* <p>Bit 63 (the bit that is selected by the mask
	* {@code 0x8000000000000000L}) represents the sign of the
	* floating-point number. Bits
	* 62-52 (the bits that are selected by the mask
	* {@code 0x7ff0000000000000L}) represent the exponent. Bits 51-0
	* (the bits that are selected by the mask
	* {@code 0x000fffffffffffffL}) represent the significand
	* (sometimes called the mantissa) of the floating-point number.
	*
	* <p>If the argument is positive infinity, the result is
	* {@code 0x7ff0000000000000L}.
	*
	* <p>If the argument is negative infinity, the result is
	* {@code 0xfff0000000000000L}.
	*
	* <p>If the argument is NaN, the result is
	* {@code 0x7ff8000000000000L}.
	*
	* <p>In all cases, the result is a {@code long} integer that, when
	* given to the {@link #longBitsToDouble(long)} method, will produce a
	* floating-point value the same as the argument to
	* {@code doubleToLongBits} (except all NaN values are
	* collapsed to a single "canonical" NaN value).
	*
	* @param   value   a {@code double} precision floating-point number.
	* @return the bits that represent the floating-point number.
	*/
	@:overload public static function doubleToLongBits(value : Float) : haxe.Int64;

	/**
	* Returns a representation of the specified floating-point value
	* according to the IEEE 754 floating-point "double
	* format" bit layout, preserving Not-a-Number (NaN) values.
	*
	* <p>Bit 63 (the bit that is selected by the mask
	* {@code 0x8000000000000000L}) represents the sign of the
	* floating-point number. Bits
	* 62-52 (the bits that are selected by the mask
	* {@code 0x7ff0000000000000L}) represent the exponent. Bits 51-0
	* (the bits that are selected by the mask
	* {@code 0x000fffffffffffffL}) represent the significand
	* (sometimes called the mantissa) of the floating-point number.
	*
	* <p>If the argument is positive infinity, the result is
	* {@code 0x7ff0000000000000L}.
	*
	* <p>If the argument is negative infinity, the result is
	* {@code 0xfff0000000000000L}.
	*
	* <p>If the argument is NaN, the result is the {@code long}
	* integer representing the actual NaN value.  Unlike the
	* {@code doubleToLongBits} method,
	* {@code doubleToRawLongBits} does not collapse all the bit
	* patterns encoding a NaN to a single "canonical" NaN
	* value.
	*
	* <p>In all cases, the result is a {@code long} integer that,
	* when given to the {@link #longBitsToDouble(long)} method, will
	* produce a floating-point value the same as the argument to
	* {@code doubleToRawLongBits}.
	*
	* @param   value   a {@code double} precision floating-point number.
	* @return the bits that represent the floating-point number.
	* @since 1.3
	*/
	@:require(java3) @:overload @:native public static function doubleToRawLongBits(value : Float) : haxe.Int64;

	/**
	* Returns the {@code double} value corresponding to a given
	* bit representation.
	* The argument is considered to be a representation of a
	* floating-point value according to the IEEE 754 floating-point
	* "double format" bit layout.
	*
	* <p>If the argument is {@code 0x7ff0000000000000L}, the result
	* is positive infinity.
	*
	* <p>If the argument is {@code 0xfff0000000000000L}, the result
	* is negative infinity.
	*
	* <p>If the argument is any value in the range
	* {@code 0x7ff0000000000001L} through
	* {@code 0x7fffffffffffffffL} or in the range
	* {@code 0xfff0000000000001L} through
	* {@code 0xffffffffffffffffL}, the result is a NaN.  No IEEE
	* 754 floating-point operation provided by Java can distinguish
	* between two NaN values of the same type with different bit
	* patterns.  Distinct values of NaN are only distinguishable by
	* use of the {@code Double.doubleToRawLongBits} method.
	*
	* <p>In all other cases, let <i>s</i>, <i>e</i>, and <i>m</i> be three
	* values that can be computed from the argument:
	*
	* <blockquote><pre>
	* int s = ((bits &gt;&gt; 63) == 0) ? 1 : -1;
	* int e = (int)((bits &gt;&gt; 52) & 0x7ffL);
	* long m = (e == 0) ?
	*                 (bits & 0xfffffffffffffL) &lt;&lt; 1 :
	*                 (bits & 0xfffffffffffffL) | 0x10000000000000L;
	* </pre></blockquote>
	*
	* Then the floating-point result equals the value of the mathematical
	* expression <i>s</i>&middot;<i>m</i>&middot;2<sup><i>e</i>-1075</sup>.
	*
	* <p>Note that this method may not be able to return a
	* {@code double} NaN with exactly same bit pattern as the
	* {@code long} argument.  IEEE 754 distinguishes between two
	* kinds of NaNs, quiet NaNs and <i>signaling NaNs</i>.  The
	* differences between the two kinds of NaN are generally not
	* visible in Java.  Arithmetic operations on signaling NaNs turn
	* them into quiet NaNs with a different, but often similar, bit
	* pattern.  However, on some processors merely copying a
	* signaling NaN also performs that conversion.  In particular,
	* copying a signaling NaN to return it to the calling method
	* may perform this conversion.  So {@code longBitsToDouble}
	* may not be able to return a {@code double} with a
	* signaling NaN bit pattern.  Consequently, for some
	* {@code long} values,
	* {@code doubleToRawLongBits(longBitsToDouble(start))} may
	* <i>not</i> equal {@code start}.  Moreover, which
	* particular bit patterns represent signaling NaNs is platform
	* dependent; although all NaN bit patterns, quiet or signaling,
	* must be in the NaN range identified above.
	*
	* @param   bits   any {@code long} integer.
	* @return  the {@code double} floating-point value with the same
	*          bit pattern.
	*/
	@:overload @:native public static function longBitsToDouble(bits : haxe.Int64) : Float;

	/**
	* Compares two {@code Double} objects numerically.  There
	* are two ways in which comparisons performed by this method
	* differ from those performed by the Java language numerical
	* comparison operators ({@code <, <=, ==, >=, >})
	* when applied to primitive {@code double} values:
	* <ul><li>
	*          {@code Double.NaN} is considered by this method
	*          to be equal to itself and greater than all other
	*          {@code double} values (including
	*          {@code Double.POSITIVE_INFINITY}).
	* <li>
	*          {@code 0.0d} is considered by this method to be greater
	*          than {@code -0.0d}.
	* </ul>
	* This ensures that the <i>natural ordering</i> of
	* {@code Double} objects imposed by this method is <i>consistent
	* with equals</i>.
	*
	* @param   anotherDouble   the {@code Double} to be compared.
	* @return  the value {@code 0} if {@code anotherDouble} is
	*          numerically equal to this {@code Double}; a value
	*          less than {@code 0} if this {@code Double}
	*          is numerically less than {@code anotherDouble};
	*          and a value greater than {@code 0} if this
	*          {@code Double} is numerically greater than
	*          {@code anotherDouble}.
	*
	* @since   1.2
	*/
	@:require(java2) @:overload public function compareTo(anotherDouble : Double) : Int;

	/**
	* Compares the two specified {@code double} values. The sign
	* of the integer value returned is the same as that of the
	* integer that would be returned by the call:
	* <pre>
	*    new Double(d1).compareTo(new Double(d2))
	* </pre>
	*
	* @param   d1        the first {@code double} to compare
	* @param   d2        the second {@code double} to compare
	* @return  the value {@code 0} if {@code d1} is
	*          numerically equal to {@code d2}; a value less than
	*          {@code 0} if {@code d1} is numerically less than
	*          {@code d2}; and a value greater than {@code 0}
	*          if {@code d1} is numerically greater than
	*          {@code d2}.
	* @since 1.4
	*/
	@:require(java4) @:overload public static function compare(d1 : Float, d2 : Float) : Int;


}