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ruby--ruby/test/ruby/test_complex.rb
nobu d6ab828369 * complex.c (nucomp_hash), rational.c (nurat_hash): not to use 
hash value of class so that equality against subclasses can
  work.  [ruby-dev:38850]


git-svn-id: svn+ssh://ci.ruby-lang.org/ruby/trunk@24270 b2dd03c8-39d4-4d8f-98ff-823fe69b080e
2009-07-25 04:44:36 +00:00

1084 lines
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require 'test/unit'
class ComplexSub < Complex; end
class Complex_Test < Test::Unit::TestCase
def setup
@rational = defined?(Rational)
if @rational
@keiju = Rational.instance_variable_get('@RCS_ID')
end
@unify = $".grep(/mathn/).size != 0
end
def test_compsub
c = ComplexSub.__send__(:convert, 1)
assert_kind_of(Numeric, c)
if @unify
assert_instance_of(Fixnum, c)
else
assert_instance_of(ComplexSub, c)
c2 = c + 1
assert_instance_of(ComplexSub, c2)
c2 = c - 1
assert_instance_of(ComplexSub, c2)
c3 = c - c2
assert_instance_of(ComplexSub, c3)
s = Marshal.dump(c)
c5 = Marshal.load(s)
assert_equal(c, c5)
assert_instance_of(ComplexSub, c5)
end
c1 = Complex(1)
assert_equal(c1.hash, c.hash, '[ruby-dev:38850]')
assert_equal([true, true], [c.eql?(c1), c1.eql?(c)])
end
def test_eql_p
c = Complex(0)
c2 = Complex(0)
c3 = Complex(1)
assert_equal(true, c.eql?(c2))
assert_equal(false, c.eql?(c3))
if @unify
assert_equal(true, c.eql?(0))
else
assert_equal(false, c.eql?(0))
end
end
def test_hash
assert_instance_of(Fixnum, Complex(1,2).hash)
assert_instance_of(Fixnum, Complex(1.0,2.0).hash)
h = {}
h[Complex(0)] = 0
h[Complex(0,1)] = 1
h[Complex(1,0)] = 2
h[Complex(1,1)] = 3
assert_equal(4, h.size)
assert_equal(2, h[Complex(1,0)])
h[Complex(0,0)] = 9
assert_equal(4, h.size)
h[Complex(0.0,0.0)] = 9.0
assert_equal(5, h.size)
if (0.0/0).nan? && !((0.0/0).eql?(0.0/0))
h = {}
3.times{h[Complex(0.0/0)] = 1}
assert_equal(3, h.size)
end
end
def test_freeze
c = Complex(1)
c.freeze
unless @unify
assert_equal(true, c.frozen?)
end
assert_instance_of(String, c.to_s)
end
def test_conv
c = Complex(0,0)
assert_equal(Complex(0,0), c)
c = Complex(2**32, 2**32)
assert_equal(Complex(2**32,2**32), c)
assert_equal([2**32,2**32], [c.real,c.imag])
c = Complex(-2**32, 2**32)
assert_equal(Complex(-2**32,2**32), c)
assert_equal([-2**32,2**32], [c.real,c.imag])
c = Complex(2**32, -2**32)
assert_equal(Complex(2**32,-2**32), c)
assert_equal([2**32,-2**32], [c.real,c.imag])
c = Complex(-2**32, -2**32)
assert_equal(Complex(-2**32,-2**32), c)
assert_equal([-2**32,-2**32], [c.real,c.imag])
c = Complex(Complex(1,2),2)
assert_equal(Complex(1,4), c)
c = Complex(2,Complex(1,2))
assert_equal(Complex(0,1), c)
c = Complex(Complex(1,2),Complex(1,2))
assert_equal(Complex(-1,3), c)
c = Complex::I
assert_equal(Complex(0,1), c)
assert_equal(Complex(1),Complex(1))
assert_equal(Complex(1),Complex('1'))
assert_equal(Complex(3.0,3.0),Complex('3.0','3.0'))
if @rational && !@keiju
assert_equal(Complex(1,1),Complex('3/3','3/3'))
end
assert_raise(TypeError){Complex(nil)}
assert_raise(TypeError){Complex(Object.new)}
assert_raise(ArgumentError){Complex()}
assert_raise(ArgumentError){Complex(1,2,3)}
if (0.0/0).nan?
assert_nothing_raised{Complex(0.0/0)}
end
if (1.0/0).infinite?
assert_nothing_raised{Complex(1.0/0)}
end
end
def test_attr
c = Complex(4)
assert_equal(4, c.real)
assert_equal(0, c.imag)
c = Complex(4,5)
assert_equal(4, c.real)
assert_equal(5, c.imag)
if -0.0.to_s == '-0.0'
c = Complex(-0.0,-0.0)
assert_equal('-0.0', c.real.to_s)
assert_equal('-0.0', c.imag.to_s)
end
c = Complex(4)
assert_equal(4, c.real)
assert_equal(0, c.imag)
assert_equal(c.imag, c.imaginary)
c = Complex(4,5)
assert_equal(4, c.real)
assert_equal(5, c.imag)
assert_equal(c.imag, c.imaginary)
if -0.0.to_s == '-0.0'
c = Complex(-0.0,-0.0)
assert_equal('-0.0', c.real.to_s)
assert_equal('-0.0', c.imag.to_s)
assert_equal(c.imag.to_s, c.imaginary.to_s)
end
c = Complex(4)
assert_equal(4, c.real)
assert_equal(c.imag, c.imaginary)
assert_equal(0, c.imag)
c = Complex(4,5)
assert_equal(4, c.real)
assert_equal(5, c.imag)
assert_equal(c.imag, c.imaginary)
c = Complex(-0.0,-0.0)
assert_equal('-0.0', c.real.to_s)
assert_equal('-0.0', c.imag.to_s)
assert_equal(c.imag.to_s, c.imaginary.to_s)
end
def test_attr2
c = Complex(1)
if @unify
=begin
assert_equal(true, c.finite?)
assert_equal(false, c.infinite?)
assert_equal(false, c.nan?)
assert_equal(true, c.integer?)
assert_equal(false, c.float?)
assert_equal(true, c.rational?)
=end
assert_equal(true, c.real?)
=begin
assert_equal(false, c.complex?)
assert_equal(true, c.exact?)
assert_equal(false, c.inexact?)
=end
else
=begin
assert_equal(true, c.finite?)
assert_equal(false, c.infinite?)
assert_equal(false, c.nan?)
assert_equal(false, c.integer?)
assert_equal(false, c.float?)
assert_equal(false, c.rational?)
=end
assert_equal(false, c.real?)
=begin
assert_equal(true, c.complex?)
assert_equal(true, c.exact?)
assert_equal(false, c.inexact?)
=end
end
=begin
assert_equal(0, Complex(0).sign)
assert_equal(1, Complex(2).sign)
assert_equal(-1, Complex(-2).sign)
=end
assert_equal(true, Complex(0).zero?)
assert_equal(true, Complex(0,0).zero?)
assert_equal(false, Complex(1,0).zero?)
assert_equal(false, Complex(0,1).zero?)
assert_equal(false, Complex(1,1).zero?)
assert_equal(nil, Complex(0).nonzero?)
assert_equal(nil, Complex(0,0).nonzero?)
assert_equal(Complex(1,0), Complex(1,0).nonzero?)
assert_equal(Complex(0,1), Complex(0,1).nonzero?)
assert_equal(Complex(1,1), Complex(1,1).nonzero?)
end
def test_rect
assert_equal([1,2], Complex.rectangular(1,2).rectangular)
assert_equal([1,2], Complex.rect(1,2).rect)
end
def test_polar
assert_equal([1,2], Complex.polar(1,2).polar)
end
def test_uplus
assert_equal(Complex(1), +Complex(1))
assert_equal(Complex(-1), +Complex(-1))
assert_equal(Complex(1,1), +Complex(1,1))
assert_equal(Complex(-1,1), +Complex(-1,1))
assert_equal(Complex(1,-1), +Complex(1,-1))
assert_equal(Complex(-1,-1), +Complex(-1,-1))
if -0.0.to_s == '-0.0'
c = +Complex(0.0,0.0)
assert_equal('0.0', c.real.to_s)
assert_equal('0.0', c.imag.to_s)
c = +Complex(-0.0,-0.0)
assert_equal('-0.0', c.real.to_s)
assert_equal('-0.0', c.imag.to_s)
end
end
def test_negate
assert_equal(Complex(-1), -Complex(1))
assert_equal(Complex(1), -Complex(-1))
assert_equal(Complex(-1,-1), -Complex(1,1))
assert_equal(Complex(1,-1), -Complex(-1,1))
assert_equal(Complex(-1,1), -Complex(1,-1))
assert_equal(Complex(1,1), -Complex(-1,-1))
if -0.0.to_s == '-0.0'
c = -Complex(0.0,0.0)
assert_equal('-0.0', c.real.to_s)
assert_equal('-0.0', c.imag.to_s)
c = -Complex(-0.0,-0.0)
assert_equal('0.0', c.real.to_s)
assert_equal('0.0', c.imag.to_s)
end
=begin
assert_equal(0, Complex(0).negate)
assert_equal(-2, Complex(2).negate)
assert_equal(2, Complex(-2).negate)
=end
end
def test_add
c = Complex(1,2)
c2 = Complex(2,3)
assert_equal(Complex(3,5), c + c2)
assert_equal(Complex(3,2), c + 2)
assert_equal(Complex(3.0,2), c + 2.0)
if @rational
assert_equal(Complex(Rational(3,1),Rational(2)), c + Rational(2))
assert_equal(Complex(Rational(5,3),Rational(2)), c + Rational(2,3))
end
end
def test_sub
c = Complex(1,2)
c2 = Complex(2,3)
assert_equal(Complex(-1,-1), c - c2)
assert_equal(Complex(-1,2), c - 2)
assert_equal(Complex(-1.0,2), c - 2.0)
if @rational
assert_equal(Complex(Rational(-1,1),Rational(2)), c - Rational(2))
assert_equal(Complex(Rational(1,3),Rational(2)), c - Rational(2,3))
end
end
def test_mul
c = Complex(1,2)
c2 = Complex(2,3)
assert_equal(Complex(-4,7), c * c2)
assert_equal(Complex(2,4), c * 2)
assert_equal(Complex(2.0,4.0), c * 2.0)
if @rational
assert_equal(Complex(Rational(2,1),Rational(4)), c * Rational(2))
assert_equal(Complex(Rational(2,3),Rational(4,3)), c * Rational(2,3))
end
end
def test_div
c = Complex(1,2)
c2 = Complex(2,3)
if @rational
assert_equal(Complex(Rational(8,13),Rational(1,13)), c / c2)
else
r = c / c2
assert_in_delta(0.615, r.real, 0.001)
assert_in_delta(0.076, r.imag, 0.001)
end
c = Complex(1.0,2.0)
c2 = Complex(2.0,3.0)
r = c / c2
assert_in_delta(0.615, r.real, 0.001)
assert_in_delta(0.076, r.imag, 0.001)
c = Complex(1,2)
c2 = Complex(2,3)
if @rational
assert_equal(Complex(Rational(1,2),1), c / 2)
else
assert_equal(Complex(0.5,1.0), c / 2)
end
assert_equal(Complex(0.5,1.0), c / 2.0)
if @rational
assert_equal(Complex(Rational(1,2),Rational(1)), c / Rational(2))
assert_equal(Complex(Rational(3,2),Rational(3)), c / Rational(2,3))
end
end
def test_quo
c = Complex(1,2)
c2 = Complex(2,3)
if @rational
assert_equal(Complex(Rational(8,13),Rational(1,13)), c.quo(c2))
else
r = c.quo(c2)
assert_in_delta(0.615, r.real, 0.001)
assert_in_delta(0.076, r.imag, 0.001)
end
c = Complex(1.0,2.0)
c2 = Complex(2.0,3.0)
r = c.quo(c2)
assert_in_delta(0.615, r.real, 0.001)
assert_in_delta(0.076, r.imag, 0.001)
c = Complex(1,2)
c2 = Complex(2,3)
if @rational
assert_equal(Complex(Rational(1,2),1), c.quo(2))
else
assert_equal(Complex(0.5,1.0), c.quo(2))
end
assert_equal(Complex(0.5,1.0), c.quo(2.0))
if @rational
assert_equal(Complex(Rational(1,2),Rational(1)), c / Rational(2))
assert_equal(Complex(Rational(3,2),Rational(3)), c / Rational(2,3))
end
end
def test_fdiv
c = Complex(1,2)
c2 = Complex(2,3)
r = c.fdiv(c2)
assert_in_delta(0.615, r.real, 0.001)
assert_in_delta(0.076, r.imag, 0.001)
c = Complex(1.0,2.0)
c2 = Complex(2.0,3.0)
r = c.fdiv(c2)
assert_in_delta(0.615, r.real, 0.001)
assert_in_delta(0.076, r.imag, 0.001)
c = Complex(1,2)
c2 = Complex(2,3)
assert_equal(Complex(0.5,1.0), c.fdiv(2))
assert_equal(Complex(0.5,1.0), c.fdiv(2.0))
end
def test_expt
c = Complex(1,2)
c2 = Complex(2,3)
r = c ** c2
assert_in_delta(-0.015, r.real, 0.001)
assert_in_delta(-0.179, r.imag, 0.001)
assert_equal(Complex(-3,4), c ** 2)
if @rational && !@keiju
assert_equal(Complex(Rational(-3,25),Rational(-4,25)), c ** -2)
else
r = c ** -2
assert_in_delta(-0.12, r.real, 0.001)
assert_in_delta(-0.16, r.imag, 0.001)
end
r = c ** 2.0
assert_in_delta(-3.0, r.real, 0.001)
assert_in_delta(4.0, r.imag, 0.001)
r = c ** -2.0
assert_in_delta(-0.12, r.real, 0.001)
assert_in_delta(-0.16, r.imag, 0.001)
if @rational && !@keiju
assert_equal(Complex(-3,4), c ** Rational(2))
#=begin
assert_equal(Complex(Rational(-3,25),Rational(-4,25)),
c ** Rational(-2)) # why failed?
#=end
r = c ** Rational(2,3)
assert_in_delta(1.264, r.real, 0.001)
assert_in_delta(1.150, r.imag, 0.001)
r = c ** Rational(-2,3)
assert_in_delta(0.432, r.real, 0.001)
assert_in_delta(-0.393, r.imag, 0.001)
end
end
def test_cmp
assert_raise(NoMethodError){1 <=> Complex(1,1)}
assert_raise(NoMethodError){Complex(1,1) <=> 1}
assert_raise(NoMethodError){Complex(1,1) <=> Complex(1,1)}
end
def test_eqeq
assert(Complex(1,0) == Complex(1))
assert(Complex(-1,0) == Complex(-1))
assert_equal(false, Complex(2,1) == Complex(1))
assert_equal(true, Complex(2,1) != Complex(1))
assert_equal(false, Complex(1) == nil)
assert_equal(false, Complex(1) == '')
nan = 0.0 / 0
if nan.nan? && nan != nan
assert_equal(false, Complex(nan, 0) == Complex(nan, 0))
assert_equal(false, Complex(0, nan) == Complex(0, nan))
assert_equal(false, Complex(nan, nan) == Complex(nan, nan))
end
end
def test_coerce
assert_equal([Complex(2),Complex(1)], Complex(1).coerce(2))
assert_equal([Complex(2.2),Complex(1)], Complex(1).coerce(2.2))
assert_equal([Complex(Rational(2)),Complex(1)],
Complex(1).coerce(Rational(2)))
assert_equal([Complex(2),Complex(1)], Complex(1).coerce(Complex(2)))
end
def test_unify
if @unify
assert_instance_of(Fixnum, Complex(1,2) + Complex(-1,-2))
assert_instance_of(Fixnum, Complex(1,2) - Complex(1,2))
assert_instance_of(Fixnum, Complex(1,2) * 0)
assert_instance_of(Fixnum, Complex(1,2) / Complex(1,2))
# assert_instance_of(Fixnum, Complex(1,2).div(Complex(1,2)))
assert_instance_of(Fixnum, Complex(1,2).quo(Complex(1,2)))
# assert_instance_of(Fixnum, Complex(1,2) ** 0) # mathn's bug
end
end
def test_math
c = Complex(1,2)
assert_in_delta(2.236, c.abs, 0.001)
assert_in_delta(2.236, c.magnitude, 0.001)
assert_equal(5, c.abs2)
assert_equal(c.abs, Math.sqrt(c * c.conj))
assert_equal(c.abs, Math.sqrt(c.real**2 + c.imag**2))
assert_equal(c.abs2, c * c.conj)
assert_equal(c.abs2, c.real**2 + c.imag**2)
assert_in_delta(1.107, c.arg, 0.001)
assert_in_delta(1.107, c.angle, 0.001)
assert_in_delta(1.107, c.phase, 0.001)
r = c.polar
assert_in_delta(2.236, r[0], 0.001)
assert_in_delta(1.107, r[1], 0.001)
assert_equal(Complex(1,-2), c.conjugate)
assert_equal(Complex(1,-2), c.conj)
# assert_equal(Complex(1,-2), ~c)
# assert_equal(5, c * ~c)
assert_equal(Complex(1,2), c.numerator)
assert_equal(1, c.denominator)
end
def test_to_s
c = Complex(1,2)
assert_instance_of(String, c.to_s)
assert_equal('1+2i', c.to_s)
assert_equal('0+2i', Complex(0,2).to_s)
assert_equal('0-2i', Complex(0,-2).to_s)
assert_equal('1+2i', Complex(1,2).to_s)
assert_equal('-1+2i', Complex(-1,2).to_s)
assert_equal('-1-2i', Complex(-1,-2).to_s)
assert_equal('1-2i', Complex(1,-2).to_s)
assert_equal('-1-2i', Complex(-1,-2).to_s)
assert_equal('0+2.0i', Complex(0,2.0).to_s)
assert_equal('0-2.0i', Complex(0,-2.0).to_s)
assert_equal('1.0+2.0i', Complex(1.0,2.0).to_s)
assert_equal('-1.0+2.0i', Complex(-1.0,2.0).to_s)
assert_equal('-1.0-2.0i', Complex(-1.0,-2.0).to_s)
assert_equal('1.0-2.0i', Complex(1.0,-2.0).to_s)
assert_equal('-1.0-2.0i', Complex(-1.0,-2.0).to_s)
if @rational && !@unify && !@keiju
assert_equal('0+2/1i', Complex(0,Rational(2)).to_s)
assert_equal('0-2/1i', Complex(0,Rational(-2)).to_s)
assert_equal('1+2/1i', Complex(1,Rational(2)).to_s)
assert_equal('-1+2/1i', Complex(-1,Rational(2)).to_s)
assert_equal('-1-2/1i', Complex(-1,Rational(-2)).to_s)
assert_equal('1-2/1i', Complex(1,Rational(-2)).to_s)
assert_equal('-1-2/1i', Complex(-1,Rational(-2)).to_s)
assert_equal('0+2/3i', Complex(0,Rational(2,3)).to_s)
assert_equal('0-2/3i', Complex(0,Rational(-2,3)).to_s)
assert_equal('1+2/3i', Complex(1,Rational(2,3)).to_s)
assert_equal('-1+2/3i', Complex(-1,Rational(2,3)).to_s)
assert_equal('-1-2/3i', Complex(-1,Rational(-2,3)).to_s)
assert_equal('1-2/3i', Complex(1,Rational(-2,3)).to_s)
assert_equal('-1-2/3i', Complex(-1,Rational(-2,3)).to_s)
end
nan = 0.0 / 0
inf = 1.0 / 0
if nan.nan?
assert_equal('NaN+NaN*i', Complex(nan,nan).to_s)
end
if inf.infinite?
assert_equal('Infinity+Infinity*i', Complex(inf,inf).to_s)
assert_equal('Infinity-Infinity*i', Complex(inf,-inf).to_s)
end
end
def test_inspect
c = Complex(1,2)
assert_instance_of(String, c.inspect)
assert_equal('(1+2i)', c.inspect)
end
def test_marshal
c = Complex(1,2)
c.instance_eval{@ivar = 9}
s = Marshal.dump(c)
c2 = Marshal.load(s)
assert_equal(c, c2)
assert_equal(9, c2.instance_variable_get(:@ivar))
assert_instance_of(Complex, c2)
if @rational
c = Complex(Rational(1,2),Rational(2,3))
s = Marshal.dump(c)
c2 = Marshal.load(s)
assert_equal(c, c2)
assert_instance_of(Complex, c2)
end
end
def test_parse
assert_equal(Complex(5), '5'.to_c)
assert_equal(Complex(-5), '-5'.to_c)
assert_equal(Complex(5,3), '5+3i'.to_c)
assert_equal(Complex(-5,3), '-5+3i'.to_c)
assert_equal(Complex(5,-3), '5-3i'.to_c)
assert_equal(Complex(-5,-3), '-5-3i'.to_c)
assert_equal(Complex(0,3), '3i'.to_c)
assert_equal(Complex(0,-3), '-3i'.to_c)
assert_equal(Complex(5,1), '5+i'.to_c)
assert_equal(Complex(0,1), 'i'.to_c)
assert_equal(Complex(0,1), '+i'.to_c)
assert_equal(Complex(0,-1), '-i'.to_c)
assert_equal(Complex(5,3), '5+3I'.to_c)
assert_equal(Complex(5,3), '5+3j'.to_c)
assert_equal(Complex(5,3), '5+3J'.to_c)
assert_equal(Complex(0,3), '3I'.to_c)
assert_equal(Complex(0,3), '3j'.to_c)
assert_equal(Complex(0,3), '3J'.to_c)
assert_equal(Complex(0,1), 'I'.to_c)
assert_equal(Complex(0,1), 'J'.to_c)
assert_equal(Complex(5.0), '5.0'.to_c)
assert_equal(Complex(-5.0), '-5.0'.to_c)
assert_equal(Complex(5.0,3.0), '5.0+3.0i'.to_c)
assert_equal(Complex(-5.0,3.0), '-5.0+3.0i'.to_c)
assert_equal(Complex(5.0,-3.0), '5.0-3.0i'.to_c)
assert_equal(Complex(-5.0,-3.0), '-5.0-3.0i'.to_c)
assert_equal(Complex(0.0,3.0), '3.0i'.to_c)
assert_equal(Complex(0.0,-3.0), '-3.0i'.to_c)
assert_equal(Complex(5.0), '5e0'.to_c)
assert_equal(Complex(-5.0), '-5e0'.to_c)
assert_equal(Complex(5.0,3.0), '5e0+3e0i'.to_c)
assert_equal(Complex(-5.0,3.0), '-5e0+3e0i'.to_c)
assert_equal(Complex(5.0,-3.0), '5e0-3e0i'.to_c)
assert_equal(Complex(-5.0,-3.0), '-5e0-3e0i'.to_c)
assert_equal(Complex(0.0,3.0), '3e0i'.to_c)
assert_equal(Complex(0.0,-3.0), '-3e0i'.to_c)
assert_equal(Complex(0.33), '.33'.to_c)
assert_equal(Complex(0.33), '0.33'.to_c)
assert_equal(Complex(-0.33), '-.33'.to_c)
assert_equal(Complex(-0.33), '-0.33'.to_c)
assert_equal(Complex(-0.33), '-0.3_3'.to_c)
assert_equal(Complex.polar(10,10), '10@10'.to_c)
assert_equal(Complex.polar(-10,-10), '-10@-10'.to_c)
assert_equal(Complex.polar(10.5,10.5), '10.5@10.5'.to_c)
assert_equal(Complex.polar(-10.5,-10.5), '-10.5@-10.5'.to_c)
assert_equal(Complex(5), Complex('5'))
assert_equal(Complex(-5), Complex('-5'))
assert_equal(Complex(5,3), Complex('5+3i'))
assert_equal(Complex(-5,3), Complex('-5+3i'))
assert_equal(Complex(5,-3), Complex('5-3i'))
assert_equal(Complex(-5,-3), Complex('-5-3i'))
assert_equal(Complex(0,3), Complex('3i'))
assert_equal(Complex(0,-3), Complex('-3i'))
assert_equal(Complex(5,1), Complex('5+i'))
assert_equal(Complex(0,1), Complex('i'))
assert_equal(Complex(0,1), Complex('+i'))
assert_equal(Complex(0,-1), Complex('-i'))
assert_equal(Complex(5,3), Complex('5+3I'))
assert_equal(Complex(5,3), Complex('5+3j'))
assert_equal(Complex(5,3), Complex('5+3J'))
assert_equal(Complex(0,3), Complex('3I'))
assert_equal(Complex(0,3), Complex('3j'))
assert_equal(Complex(0,3), Complex('3J'))
assert_equal(Complex(0,1), Complex('I'))
assert_equal(Complex(0,1), Complex('J'))
assert_equal(Complex(5.0), Complex('5.0'))
assert_equal(Complex(-5.0), Complex('-5.0'))
assert_equal(Complex(5.0,3.0), Complex('5.0+3.0i'))
assert_equal(Complex(-5.0,3.0), Complex('-5.0+3.0i'))
assert_equal(Complex(5.0,-3.0), Complex('5.0-3.0i'))
assert_equal(Complex(-5.0,-3.0), Complex('-5.0-3.0i'))
assert_equal(Complex(0.0,3.0), Complex('3.0i'))
assert_equal(Complex(0.0,-3.0), Complex('-3.0i'))
assert_equal(Complex(5.0), Complex('5e0'))
assert_equal(Complex(-5.0), Complex('-5e0'))
assert_equal(Complex(5.0,3.0), Complex('5e0+3e0i'))
assert_equal(Complex(-5.0,3.0), Complex('-5e0+3e0i'))
assert_equal(Complex(5.0,-3.0), Complex('5e0-3e0i'))
assert_equal(Complex(-5.0,-3.0), Complex('-5e0-3e0i'))
assert_equal(Complex(0.0,3.0), Complex('3e0i'))
assert_equal(Complex(0.0,-3.0), Complex('-3e0i'))
assert_equal(Complex(0.33), Complex('.33'))
assert_equal(Complex(0.33), Complex('0.33'))
assert_equal(Complex(-0.33), Complex('-.33'))
assert_equal(Complex(-0.33), Complex('-0.33'))
assert_equal(Complex(-0.33), Complex('-0.3_3'))
assert_equal(Complex.polar(10,10), Complex('10@10'))
assert_equal(Complex.polar(-10,-10), Complex('-10@-10'))
assert_equal(Complex.polar(10.5,10.5), Complex('10.5@10.5'))
assert_equal(Complex.polar(-10.5,-10.5), Complex('-10.5@-10.5'))
assert_equal(Complex(0), ''.to_c)
assert_equal(Complex(0), ' '.to_c)
assert_equal(Complex(5), "\f\n\r\t\v5\0".to_c)
assert_equal(Complex(0), '_'.to_c)
assert_equal(Complex(0), '_5'.to_c)
assert_equal(Complex(5), '5_'.to_c)
assert_equal(Complex(5), '5x'.to_c)
assert_equal(Complex(5), '5+_3i'.to_c)
assert_equal(Complex(5), '5+3_i'.to_c)
assert_equal(Complex(5,3), '5+3i_'.to_c)
assert_equal(Complex(5,3), '5+3ix'.to_c)
assert_raise(ArgumentError){ Complex('')}
assert_raise(ArgumentError){ Complex('_')}
assert_raise(ArgumentError){ Complex("\f\n\r\t\v5\0")}
assert_raise(ArgumentError){ Complex('_5')}
assert_raise(ArgumentError){ Complex('5_')}
assert_raise(ArgumentError){ Complex('5x')}
assert_raise(ArgumentError){ Complex('5+_3i')}
assert_raise(ArgumentError){ Complex('5+3_i')}
assert_raise(ArgumentError){ Complex('5+3i_')}
assert_raise(ArgumentError){ Complex('5+3ix')}
if @rational && defined?(''.to_r)
assert_equal(Complex(Rational(1,5)), '1/5'.to_c)
assert_equal(Complex(Rational(-1,5)), '-1/5'.to_c)
assert_equal(Complex(Rational(1,5),3), '1/5+3i'.to_c)
assert_equal(Complex(Rational(1,5),-3), '1/5-3i'.to_c)
assert_equal(Complex(Rational(-1,5),3), '-1/5+3i'.to_c)
assert_equal(Complex(Rational(-1,5),-3), '-1/5-3i'.to_c)
assert_equal(Complex(Rational(1,5),Rational(3,2)), '1/5+3/2i'.to_c)
assert_equal(Complex(Rational(1,5),Rational(-3,2)), '1/5-3/2i'.to_c)
assert_equal(Complex(Rational(-1,5),Rational(3,2)), '-1/5+3/2i'.to_c)
assert_equal(Complex(Rational(-1,5),Rational(-3,2)), '-1/5-3/2i'.to_c)
assert_equal(Complex(Rational(1,5),Rational(3,2)), '1/5+3/2i'.to_c)
assert_equal(Complex(Rational(1,5),Rational(-3,2)), '1/5-3/2i'.to_c)
assert_equal(Complex(Rational(-1,5),Rational(3,2)), '-1/5+3/2i'.to_c)
assert_equal(Complex(Rational(-1,5),Rational(-3,2)), '-1/5-3/2i'.to_c)
assert_equal(Complex.polar(Rational(1,5),Rational(3,2)), Complex('1/5@3/2'))
assert_equal(Complex.polar(Rational(-1,5),Rational(-3,2)), Complex('-1/5@-3/2'))
end
end
def test_respond
c = Complex(1,1)
assert_equal(false, c.respond_to?(:%))
assert_equal(false, c.respond_to?(:<))
assert_equal(false, c.respond_to?(:<=))
assert_equal(false, c.respond_to?(:<=>))
assert_equal(false, c.respond_to?(:>))
assert_equal(false, c.respond_to?(:>=))
assert_equal(false, c.respond_to?(:between?))
assert_equal(false, c.respond_to?(:div))
assert_equal(false, c.respond_to?(:divmod))
assert_equal(false, c.respond_to?(:floor))
assert_equal(false, c.respond_to?(:ceil))
assert_equal(false, c.respond_to?(:modulo))
assert_equal(false, c.respond_to?(:remainder))
assert_equal(false, c.respond_to?(:round))
assert_equal(false, c.respond_to?(:step))
assert_equal(false, c.respond_to?(:tunrcate))
assert_equal(false, c.respond_to?(:positive?))
assert_equal(false, c.respond_to?(:negative?))
# assert_equal(false, c.respond_to?(:sign))
assert_equal(false, c.respond_to?(:quotient))
assert_equal(false, c.respond_to?(:quot))
assert_equal(false, c.respond_to?(:quotrem))
assert_equal(false, c.respond_to?(:gcd))
assert_equal(false, c.respond_to?(:lcm))
assert_equal(false, c.respond_to?(:gcdlcm))
end
def test_to_i
assert_equal(3, Complex(3).to_i)
assert_equal(3, Integer(Complex(3)))
assert_raise(RangeError){Complex(3,2).to_i}
assert_raise(RangeError){Integer(Complex(3,2))}
end
def test_to_f
assert_equal(3.0, Complex(3).to_f)
assert_equal(3.0, Float(Complex(3)))
assert_raise(RangeError){Complex(3,2).to_f}
assert_raise(RangeError){Float(Complex(3,2))}
end
def test_to_r
if @rational && !@keiju
assert_equal(Rational(3), Complex(3).to_r)
assert_equal(Rational(3), Rational(Complex(3)))
assert_raise(RangeError){Complex(3,2).to_r}
# assert_raise(RangeError){Rational(Complex(3,2))}
end
end
def test_to_c
c = nil.to_c
assert_equal([0,0], [c.real, c.imag])
c = 0.to_c
assert_equal([0,0], [c.real, c.imag])
c = 1.to_c
assert_equal([1,0], [c.real, c.imag])
c = 1.1.to_c
assert_equal([1.1, 0], [c.real, c.imag])
if @rational
c = Rational(1,2).to_c
assert_equal([Rational(1,2), 0], [c.real, c.imag])
end
c = Complex(1,2).to_c
assert_equal([1, 2], [c.real, c.imag])
if (0.0/0).nan?
assert_nothing_raised{(0.0/0).to_c}
end
if (1.0/0).infinite?
assert_nothing_raised{(1.0/0).to_c}
end
end
def test_supp
assert_equal(true, 1.real?)
assert_equal(true, 1.1.real?)
assert_equal(1, 1.real)
assert_equal(0, 1.imag)
assert_equal(0, 1.imaginary)
assert_equal(1.1, 1.1.real)
assert_equal(0, 1.1.imag)
assert_equal(0, 1.1.imaginary)
assert_equal(1, 1.magnitude)
assert_equal(1, -1.magnitude)
assert_equal(1, 1.0.magnitude)
assert_equal(1, -1.0.magnitude)
assert_equal(4, 2.abs2)
assert_equal(4, -2.abs2)
assert_equal(4.0, 2.0.abs2)
assert_equal(4.0, -2.0.abs2)
assert_equal(0, 1.arg)
assert_equal(0, 1.angle)
assert_equal(0, 1.phase)
assert_equal(0, 1.0.arg)
assert_equal(0, 1.0.angle)
assert_equal(0, 1.0.phase)
if (0.0/0).nan?
nan = 0.0/0
assert(nan.arg.equal?(nan))
assert(nan.angle.equal?(nan))
assert(nan.phase.equal?(nan))
end
assert_equal(Math::PI, -1.arg)
assert_equal(Math::PI, -1.angle)
assert_equal(Math::PI, -1.phase)
assert_equal(Math::PI, -1.0.arg)
assert_equal(Math::PI, -1.0.angle)
assert_equal(Math::PI, -1.0.phase)
assert_equal([1,0], 1.rect)
assert_equal([-1,0], -1.rect)
assert_equal([1,0], 1.rectangular)
assert_equal([-1,0], -1.rectangular)
assert_equal([1.0,0], 1.0.rect)
assert_equal([-1.0,0], -1.0.rect)
assert_equal([1.0,0], 1.0.rectangular)
assert_equal([-1.0,0], -1.0.rectangular)
assert_equal([1,0], 1.polar)
assert_equal([1, Math::PI], -1.polar)
assert_equal([1.0,0], 1.0.polar)
assert_equal([1.0, Math::PI], -1.0.polar)
assert_equal(1, 1.conjugate)
assert_equal(-1, -1.conjugate)
assert_equal(1, 1.conj)
assert_equal(-1, -1.conj)
assert_equal(1.1, 1.1.conjugate)
assert_equal(-1.1, -1.1.conjugate)
assert_equal(1.1, 1.1.conj)
assert_equal(-1.1, -1.1.conj)
if @rational
assert_equal(Complex(Rational(1,2),Rational(1)), Complex(1,2).quo(2))
else
assert_equal(Complex(0.5,1.0), Complex(1,2).quo(2))
end
=begin
if @rational && !@keiju
assert_equal(Complex(Rational(1,2),Rational(1)), Complex(1,2).quo(2))
end
=end
assert_equal(0.5, 1.fdiv(2))
assert_equal(5000000000.0, 10000000000.fdiv(2))
assert_equal(0.5, 1.0.fdiv(2))
if @rational
assert_equal(0.25, Rational(1,2).fdiv(2))
end
assert_equal(Complex(0.5,1.0), Complex(1,2).quo(2))
unless $".grep(/(\A|\/)complex/).empty?
assert_equal(Complex(0,2), Math.sqrt(-4.0))
# assert_equal(true, Math.sqrt(-4.0).inexact?)
assert_equal(Complex(0,2), Math.sqrt(-4))
# assert_equal(true, Math.sqrt(-4).exact?)
if @rational
assert_equal(Complex(0,2), Math.sqrt(Rational(-4)))
# assert_equal(true, Math.sqrt(Rational(-4)).exact?)
end
assert_equal(Complex(0,3), Math.sqrt(-9.0))
# assert_equal(true, Math.sqrt(-9.0).inexact?)
assert_equal(Complex(0,3), Math.sqrt(-9))
# assert_equal(true, Math.sqrt(-9).exact?)
if @rational
assert_equal(Complex(0,3), Math.sqrt(Rational(-9)))
# assert_equal(true, Math.sqrt(Rational(-9)).exact?)
end
c = Math.sqrt(Complex(1, 2))
assert_in_delta(1.272, c.real, 0.001)
assert_in_delta(0.786, c.imag, 0.001)
c = Math.sqrt(-9)
assert_in_delta(0.0, c.real, 0.001)
assert_in_delta(3.0, c.imag, 0.001)
c = Math.exp(Complex(1, 2))
assert_in_delta(-1.131, c.real, 0.001)
assert_in_delta(2.471, c.imag, 0.001)
c = Math.sin(Complex(1, 2))
assert_in_delta(3.165, c.real, 0.001)
assert_in_delta(1.959, c.imag, 0.001)
c = Math.cos(Complex(1, 2))
assert_in_delta(2.032, c.real, 0.001)
assert_in_delta(-3.051, c.imag, 0.001)
c = Math.tan(Complex(1, 2))
assert_in_delta(0.033, c.real, 0.001)
assert_in_delta(1.014, c.imag, 0.001)
c = Math.sinh(Complex(1, 2))
assert_in_delta(-0.489, c.real, 0.001)
assert_in_delta(1.403, c.imag, 0.001)
c = Math.cosh(Complex(1, 2))
assert_in_delta(-0.642, c.real, 0.001)
assert_in_delta(1.068, c.imag, 0.001)
c = Math.tanh(Complex(1, 2))
assert_in_delta(1.166, c.real, 0.001)
assert_in_delta(-0.243, c.imag, 0.001)
c = Math.log(Complex(1, 2))
assert_in_delta(0.804, c.real, 0.001)
assert_in_delta(1.107, c.imag, 0.001)
c = Math.log(Complex(1, 2), Math::E)
assert_in_delta(0.804, c.real, 0.001)
assert_in_delta(1.107, c.imag, 0.001)
c = Math.log(-1)
assert_in_delta(0.0, c.real, 0.001)
assert_in_delta(Math::PI, c.imag, 0.001)
c = Math.log(8, 2)
assert_in_delta(3.0, c.real, 0.001)
assert_in_delta(0.0, c.imag, 0.001)
c = Math.log(-8, -2)
assert_in_delta(1.092, c.real, 0.001)
assert_in_delta(-0.420, c.imag, 0.001)
c = Math.log10(Complex(1, 2))
assert_in_delta(0.349, c.real, 0.001)
assert_in_delta(0.480, c.imag, 0.001)
c = Math.asin(Complex(1, 2))
assert_in_delta(0.427, c.real, 0.001)
assert_in_delta(1.528, c.imag, 0.001)
c = Math.acos(Complex(1, 2))
assert_in_delta(1.143, c.real, 0.001)
assert_in_delta(-1.528, c.imag, 0.001)
c = Math.atan(Complex(1, 2))
assert_in_delta(1.338, c.real, 0.001)
assert_in_delta(0.402, c.imag, 0.001)
c = Math.atan2(Complex(1, 2), 1)
assert_in_delta(1.338, c.real, 0.001)
assert_in_delta(0.402, c.imag, 0.001)
c = Math.asinh(Complex(1, 2))
assert_in_delta(1.469, c.real, 0.001)
assert_in_delta(1.063, c.imag, 0.001)
c = Math.acosh(Complex(1, 2))
assert_in_delta(1.528, c.real, 0.001)
assert_in_delta(1.143, c.imag, 0.001)
c = Math.atanh(Complex(1, 2))
assert_in_delta(0.173, c.real, 0.001)
assert_in_delta(1.178, c.imag, 0.001)
end
end
def test_ruby19
assert_raise(NoMethodError){ Complex.new(1) }
assert_raise(NoMethodError){ Complex.new!(1) }
assert_raise(NoMethodError){ Complex.reduce(1) }
end
def test_fixed_bug
if @rational && !@keiju
assert_equal(Complex(1), 1 ** Complex(1))
end
assert_equal('-1.0-0.0i', Complex(-1.0, -0.0).to_s)
end
def test_known_bug
end
end
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