/// <summary>
/// Permite efectuar a leitura de um polinómio a partir de texto.
/// </summary>
/// <remarks>
/// Se a leitura não for bem sucedida, é lançada uma excep~ção.
/// </remarks>
/// <param name="polynomial">O texto.</param>
/// <returns>O polinómio.</returns>
public UnivariatePolynomialNormalForm <BigInteger> Read(string polynomial)
{
var integerDomain = new BigIntegerDomain();
var integerParser = new BigIntegerParser <string>();
var conversion = new BigIntegerToIntegerConversion();
var polInputReader = new StringReader(polynomial);
var polSymbolReader = new StringSymbolReader(polInputReader, false);
var polParser = new UnivariatePolynomialReader <BigInteger, CharSymbolReader <string> >(
"x",
integerParser,
integerDomain);
var result = default(UnivariatePolynomialNormalForm <BigInteger>);
if (polParser.TryParsePolynomial(polSymbolReader, conversion, out result))
{
// O polinómio foi lido com sucesso.
return(result);
}
else
{
// Não é possível ler o polinómio.
throw new Exception("Can't read integer polynomial.");
}
}
public void RunTest_BigIntegerNumbersRhoAlg()
{
var bigIntegerNumber = new BigIntegerDomain();
var integerNumber = new IntegerDomain();
var integerParser = new BigIntegerParser <string>();
var conversion = new BigIntegerToIntegerConversion();
var variableName = "x";
var testPols = new List <UnivariatePolynomialNormalForm <BigInteger> >();
testPols.Add(TestsHelper.ReadUnivarPolynomial("x^123+1", bigIntegerNumber, integerParser, conversion, variableName));
testPols.Add(TestsHelper.ReadUnivarPolynomial("x^452+1537*x+1", bigIntegerNumber, integerParser, conversion, variableName));
var rhoAlgorithm = new PollardRhoAlgorithm <BigInteger>(
testPols,
new ModularBigIntFieldFactory(),
bigIntegerNumber);
var factorizationTarget = new DecompositionFactorizationAlgorithm <BigInteger, int>(
rhoAlgorithm,
1,
integerNumber,
bigIntegerNumber);
var value = BigInteger.Parse("1000000000001");
var expected = new Dictionary <BigInteger, int>();
expected.Add(137, 1);
expected.Add(73, 1);
expected.Add(BigInteger.Parse("99990001"), 1);
var actual = factorizationTarget.Run(value);
CollectionAssert.AreEquivalent(expected, actual);
}
public void RunTest()
{
var polynomialText = "((2*x+1)*(x-4))^2*(x+3)^3";
// Os objectos responsáveis pelas operações sobre os coeficientes
var bigIntegerDomain = new BigIntegerDomain();
var bigIntegerParser = new BigIntegerParser <string>();
var bigIntToIntegerConversion = new BigIntegerToIntegerConversion();
var bigIntFractionConversion = new OuterElementFractionConversion <int, BigInteger>(
bigIntToIntegerConversion,
bigIntegerDomain);
var polynomial = TestsHelper.ReadFractionalCoeffsUnivarPol <BigInteger, BigIntegerDomain>(
polynomialText,
bigIntegerDomain,
bigIntegerParser,
bigIntFractionConversion,
"x");
var squareFreeFactorizationAlg = new SquareFreeFractionFactorizationAlg <BigInteger>(
bigIntegerDomain);
var result = squareFreeFactorizationAlg.Run(polynomial);
// O teste passa se a expansão da factorização ser igual ao polinómio original.
Assert.IsTrue(result.Factors.Count > 0, "At least two factors are expected.");
var factorsEnum = result.Factors.GetEnumerator();
if (factorsEnum.MoveNext())
{
var polynomialDomain = new UnivarPolynomPseudoDomain <BigInteger>(
"x",
bigIntegerDomain);
var productPol = MathFunctions.Power(
factorsEnum.Current.Value,
factorsEnum.Current.Key,
polynomialDomain);
while (factorsEnum.MoveNext())
{
var temporary = MathFunctions.Power(
factorsEnum.Current.Value,
factorsEnum.Current.Key,
polynomialDomain);
productPol = polynomialDomain.Multiply(
productPol,
temporary);
}
var fractionField = new FractionField <BigInteger>(bigIntegerDomain);
var expectedPol = new UnivariatePolynomialNormalForm <Fraction <BigInteger> >("x");
foreach (var term in productPol)
{
expectedPol = expectedPol.Add(
result.IndependentCoeff.Multiply(term.Value, bigIntegerDomain),
term.Key,
fractionField);
}
Assert.AreEqual(expectedPol, polynomial);
}
}
public void AddPowerTest_BigInteger()
{
var multiplier = new BigIntegerDomain();
var intPowers = new int[] { 2, 3, 4, 1, 20, 13 };
var longPowers = new long[] { 2, 3, 4, 1, 20, 13 };
var bigIntPowers = new BigInteger[] { 2, 3, 4, 1, 20, 13 };
var values = new BigInteger[] { 13, 25, 11, 100, 2, 3 };
var expected = new BigInteger[] { 26, 75, 44, 100, 40, 39 };
// Potências inteiras.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.AddPower(values[i], intPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
// Potências longas
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.AddPower(values[i], longPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
// Potências com inteiros grandes.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.AddPower(values[i], bigIntPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
}
/// <summary>
/// Permite efectuar a leitura de um polinómio com coeficientes fraccionários a partir de texto.
/// </summary>
/// <remarks>
/// Se a leitura não for bem sucedida, é lançada uma excep~ção.
/// </remarks>
/// <param name="polynomial">O texto.</param>
/// <returns>O polinómio.</returns>
public UnivariatePolynomialNormalForm <Fraction <BigInteger> > Read(string polynomial)
{
var integerDomain = new BigIntegerDomain();
var fractionField = new FractionField <BigInteger>(integerDomain);
var integerParser = new BigIntegerParser <string>();
var fractionParser = new FieldDrivenExpressionParser <Fraction <BigInteger> >(
new SimpleElementFractionParser <BigInteger>(integerParser, integerDomain),
fractionField);
var conversion = new IntegerBigIntFractionConversion(integerDomain, new BigIntegerToIntegerConversion());
var polInputReader = new StringReader(polynomial);
var polSymbolReader = new StringSymbolReader(polInputReader, false);
var polParser = new UnivariatePolynomialReader <Fraction <BigInteger>, CharSymbolReader <string> >(
"x",
fractionParser,
fractionField);
var result = default(UnivariatePolynomialNormalForm <Fraction <BigInteger> >);
if (polParser.TryParsePolynomial(polSymbolReader, conversion, out result))
{
// O polinómio foi lido com sucesso.
return(result);
}
else
{
// Não é possível ler o polinómio.
throw new Exception("Can't read integer polynomial.");
}
}
public void PowerTest_BigInteger()
{
var multiplier = new BigIntegerDomain();
var intPowers = new int[] { 2, 3, 4, 1, 20, 13 };
var longPowers = new long[] { 2, 3, 4, 1, 20, 13 };
var bigIntPowers = new BigInteger[] { 2, 3, 4, 1, 20, 13 };
var values = new BigInteger[] { 13, 25, 11, 100, 2, 3 };
var expected = new BigInteger[] { 169, 15625, 14641, 100, 1048576, 1594323 };
// Potências inteiras.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], intPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
// Potências longas
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], longPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
// Potências com inteiros grandes.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], bigIntPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
// Potências genéricas.
var integerNumber = new IntegerDomain();
var longNumber = new LongDomain();
var bigIntegerNumber = new BigIntegerDomain();
// Potências inteiras.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], intPowers[i], multiplier, integerNumber);
Assert.AreEqual(expected[i], actual);
}
// Potências longas
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], longPowers[i], multiplier, longNumber);
Assert.AreEqual(expected[i], actual);
}
// Potências com inteiros grandes.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], bigIntPowers[i], multiplier, bigIntegerNumber);
Assert.AreEqual(expected[i], actual);
}
}
public void RunTest_BigIntegerPolynomial()
{
var integerDomain = new BigIntegerDomain();
var fractionField = new FractionField <BigInteger>(integerDomain);
var integerParser = new BigIntegerParser <string>();
var conversion = new BigIntegerToIntegerConversion();
var fractionConversion = new OuterElementFractionConversion <int, BigInteger>(conversion, integerDomain);
string variableName = "x";
var univarPolDomain = new UnivarPolynomEuclideanDomain <Fraction <BigInteger> >(
variableName,
fractionField);
var lagAlg = new LagrangeAlgorithm <UnivariatePolynomialNormalForm <Fraction <BigInteger> > >(univarPolDomain);
var firstValue = TestsHelper.ReadFractionalCoeffsUnivarPol <BigInteger, BigIntegerDomain>(
"(x-1/2)^2*(x+1/3)^5",
integerDomain,
integerParser,
fractionConversion,
variableName);
var secondValue = TestsHelper.ReadFractionalCoeffsUnivarPol <BigInteger, BigIntegerDomain>(
"(x-1/2)^3*(x+1/3)^2",
integerDomain,
integerParser,
fractionConversion,
variableName);
var gcd = TestsHelper.ReadFractionalCoeffsUnivarPol <BigInteger, BigIntegerDomain>(
"(x-1/2)^2*(x+1/3)^2",
integerDomain,
integerParser,
fractionConversion,
variableName);
var result = lagAlg.Run(firstValue, secondValue);
var mainGcdCoeff = result.GreatestCommonDivisor.GetLeadingCoefficient(fractionField);
var monicGcd = result.GreatestCommonDivisor.Multiply(
fractionField.MultiplicativeInverse(mainGcdCoeff),
fractionField);
Assert.AreEqual(gcd, monicGcd);
var firstTermExpression = univarPolDomain.Multiply(result.FirstFactor, result.FirstItem);
var secondTermExpression = univarPolDomain.Multiply(result.SecondFactor, result.SecondItem);
var actualExpression = univarPolDomain.Add(firstTermExpression, secondTermExpression);
Assert.AreEqual(result.GreatestCommonDivisor, actualExpression);
actualExpression = univarPolDomain.Multiply(result.GreatestCommonDivisor, result.FirstCofactor);
Assert.AreEqual(result.FirstItem, actualExpression);
actualExpression = univarPolDomain.Multiply(result.GreatestCommonDivisor, result.SecondCofactor);
Assert.AreEqual(result.SecondItem, actualExpression);
}
public void GreatCommonDivisorTest_BigIntegerNumber()
{
var domain = new BigIntegerDomain();
var firstValues = new BigInteger[] { 6, 48, 3251, 100, 3528, 427 };
var secondValues = new BigInteger[] { 12, 36, 4525, 75, 4116, 254 };
var expected = new BigInteger[] { 6, 12, 1, 25, 588, 1 };
for (int i = 0; i < firstValues.Length; ++i)
{
var actual = MathFunctions.GreatCommonDivisor(firstValues[i], secondValues[i], domain);
Assert.AreEqual(expected[i], actual);
}
}
public void RunTest()
{
var inputMatrix = "[[1,2,1],[2,-1,-1],[1,-1,3]]";
var inputVector = "[[1,2,3]]";
var expectedText = "[[21/19,-6/19,10/19]]";
var integerDomain = new BigIntegerDomain();
var integerParser = new BigIntegerParser <string>();
var fractionField = new FractionField <BigInteger>(integerDomain);
var fractionFieldParser = new FieldDrivenExpressionParser <Fraction <BigInteger> >(
new SimpleElementFractionParser <BigInteger>(integerParser, integerDomain),
fractionField);
var matrixFactory = new ArrayMathMatrixFactory <Fraction <BigInteger> >();
// Leitura da matriz que representa o sistema de equações.
var coeffsMatrix = TestsHelper.ReadMatrix <Fraction <BigInteger> >(
3,
3,
inputMatrix,
(i, j) => new ArrayMathMatrix <Fraction <BigInteger> >(i, j),
fractionFieldParser);
// Leitura do vector de termos independente.
var vectorMatrix = TestsHelper.ReadMatrix <Fraction <BigInteger> >(
3,
1,
inputVector,
(i, j) => new ArrayMathMatrix <Fraction <BigInteger> >(i, j),
fractionFieldParser);
var expectedMatrix = TestsHelper.ReadMatrix <Fraction <BigInteger> >(
3,
1,
expectedText,
(i, j) => new ArrayMathMatrix <Fraction <BigInteger> >(i, j),
fractionFieldParser);
var systemSolver = new SequentialLanczosAlgorithm <Fraction <BigInteger>, FractionField <BigInteger> >(
matrixFactory,
fractionField);
var squareMatrix = (coeffsMatrix as ArrayMathMatrix <Fraction <BigInteger> >).AsSquare();
var actual = systemSolver.Run(squareMatrix, vectorMatrix);
for (int i = 0; i < 3; ++i)
{
Assert.AreEqual(expectedMatrix[i, 0], actual[i, 0]);
}
}
public void AddPowerTest_BigIntegerFraction()
{
var domain = new BigIntegerDomain();
var multiplier = new FractionField <BigInteger>(domain);
var intPowers = new int[] { 2, 3, 4, 1, 20, 13 };
var longPowers = new long[] { 2, 3, 4, 1, 20, 13 };
var bigIntPowers = new BigInteger[] { 2, 3, 4, 1, 20, 13 };
var values = new[] {
new Fraction <BigInteger>(13, 17, domain),
new Fraction <BigInteger>(25, 23, domain),
new Fraction <BigInteger>(11, 15, domain),
new Fraction <BigInteger>(100, 99, domain),
new Fraction <BigInteger>(1, 2, domain),
new Fraction <BigInteger>(3, 5, domain)
};
var expected = new[] {
new Fraction <BigInteger>(26, 17, domain),
new Fraction <BigInteger>(75, 23, domain),
new Fraction <BigInteger>(44, 15, domain),
new Fraction <BigInteger>(100, 99, domain),
new Fraction <BigInteger>(10, 1, domain),
new Fraction <BigInteger>(39, 5, domain)
};
// Potências inteiras.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.AddPower(values[i], intPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
// Potências longas
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.AddPower(values[i], longPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
// Potências com inteiros grandes.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.AddPower(values[i], bigIntPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
}
public void RunTest_BigInteger()
{
var integerSquareRootAlg = new BigIntSquareRootAlgorithm();
var integerNumber = new BigIntegerDomain();
var factorizationAlg = new NaiveIntegerFactorizationAlgorithm <BigInteger>(
integerSquareRootAlg,
integerNumber);
var value = BigInteger.Parse("1000000000001");
var expected = new Dictionary <BigInteger, int>();
expected.Add(137, 1);
expected.Add(73, 1);
expected.Add(BigInteger.Parse("99990001"), 1);
var actual = factorizationAlg.Run(value);
CollectionAssert.AreEquivalent(expected, actual);
}
public void RunTest_BigInteger()
{
var squareRootAlgorithm = new BigIntSquareRootAlgorithm();
var primeNumberFactory = new BigIntegerPrimeNumbersIteratorFactory();
var integerNumber = new BigIntegerDomain();
var totientAlgorithm = new EulerTotFuncAlg <BigInteger>(
squareRootAlgorithm,
primeNumberFactory,
integerNumber);
var values = new[] { 1, 12, 343, 720, 73, 100 };
var expected = new[] { 1, 4, 294, 192, 72, 40 };
for (int i = 0; i < values.Length; ++i)
{
var actual = totientAlgorithm.Run(values[i]);
Assert.AreEqual(expected[i], actual);
}
}
public void RunTest_BigInteger()
{
var integerDomain = new BigIntegerDomain();
var lagAlg = new LagrangeAlgorithm <BigInteger>(integerDomain);
var firstValue = BigInteger.Parse("91986494539681");
var secondValue = BigInteger.Parse("19645957369297");
var result = lagAlg.Run(firstValue, secondValue);
Assert.AreEqual(9590959, result.GreatestCommonDivisor);
var actualExpression = result.FirstFactor * result.FirstItem + result.SecondFactor * result.SecondItem;
Assert.AreEqual(result.GreatestCommonDivisor, actualExpression);
actualExpression = result.GreatestCommonDivisor * result.FirstCofactor;
Assert.AreEqual(result.FirstItem, actualExpression);
actualExpression = result.GreatestCommonDivisor * result.SecondCofactor;
Assert.AreEqual(result.SecondItem, actualExpression);
}
public void RunTest_BigIntegerMatrix()
{
// A leitura é realizada por colunas.
var matrixText = "[[100000,1001,20005], [32534,4245341,56134513451], [21346136,1134613,1136135613]]";
var integerDomain = new BigIntegerDomain();
var variableName = "x";
var integerParser = new BigIntegerParser <string>();
var conversion = new BigIntegerToIntegerConversion();
var matrix = TestsHelper.ReadMatrix <BigInteger>(
3,
3,
matrixText,
(i, j) => new ArraySquareMathMatrix <BigInteger>(i),
integerParser);
var fastDivFreeCharacPolAlg = new FastDivisionFreeCharPolynomCalculator <BigInteger>(variableName, integerDomain);
var expected = TestsHelper.ReadUnivarPolynomial("1*x^3+-1140480954*x^2-58754054577367644*x+4689162494877443109176", integerDomain, integerParser, conversion, variableName);
var actual = fastDivFreeCharacPolAlg.Run(matrix as ISquareMathMatrix <BigInteger>);
Assert.AreEqual(expected, actual);
}
public void Statistcs_ListGeneralizeMeanBlockAlgorithmTest()
{
var target = new ListGeneralizedMeanAlgorithm <int, double>(
i => i,
d => d,
(d, i) => d / i,
new DoubleField());
var blockNumber = 2500;
var integerSequence = new List <int>();
for (var i = 1; i < 5500; ++i)
{
integerSequence.Add(i);
var expected = (i + 1) / 2.0;
var actual = target.Run <double>(
integerSequence,
blockNumber,
(j, k) => j / (double)k,
(d1, d2) => d1 * d2);
Assert.IsTrue(Math.Abs(expected - actual) < 0.001);
}
var n = 1000500;
for (var i = 5500; i <= n; ++i)
{
integerSequence.Add(i);
}
var outerExpected = (n + 1) / 2.0;
var outerActual = target.Run <double>(
integerSequence,
blockNumber,
(j, k) => j / (double)k,
(d1, d2) => d1 * d2);
Assert.AreEqual(outerExpected, outerActual);
var integerDomain = new BigIntegerDomain();
var fractionField = new FractionField <BigInteger>(integerDomain);
var fracTarget = new ListGeneralizedMeanAlgorithm <int, Fraction <BigInteger> >(
i => new Fraction <BigInteger>(i, 1, integerDomain),
d => d,
(d, i) => d.Divide(i, integerDomain),
fractionField);
var fractionExpected = new Fraction <BigInteger>(n + 1, 2, integerDomain);
var fractionActual = fracTarget.Run <Fraction <BigInteger> >(
integerSequence,
blockNumber,
(j, k) => new Fraction <BigInteger>(j, k, integerDomain),
(d1, d2) => d1.Multiply(d2, integerDomain));
Assert.AreEqual(fractionExpected, fractionActual);
// Teste com alteração da função directa
fracTarget.DirectFunction = i => new Fraction <BigInteger>(new BigInteger(i) * i, 1, integerDomain);
fractionExpected = new Fraction <BigInteger>(
(new BigInteger(n) + BigInteger.One) * (2 * new BigInteger(n) + 1), 6, integerDomain);
fractionActual = fracTarget.Run <Fraction <BigInteger> >(
integerSequence,
blockNumber,
(j, k) => new Fraction <BigInteger>(j, k, integerDomain),
(d1, d2) => d1.Multiply(d2, integerDomain));
// Teste com transformação
var transformedTarget = new ListGeneralizedMeanAlgorithm <BigInteger, Fraction <BigInteger> >(
i => new Fraction <BigInteger>(i, 1, integerDomain),
d => d,
(d, i) => d.Divide(i, integerDomain),
fractionField);
var transformedSeq = new TransformList <int, BigInteger>(
integerSequence,
i => new BigInteger(i) * i);
var transformedExpected = new Fraction <BigInteger>(
(new BigInteger(n) + BigInteger.One) * (2 * new BigInteger(n) + 1), 6, integerDomain);
var transformedActual = transformedTarget.Run <Fraction <BigInteger> >(
transformedSeq,
blockNumber,
(j, k) => new Fraction <BigInteger>(j, k, integerDomain),
(d1, d2) => d1.Multiply(d2, integerDomain));
Assert.AreEqual(transformedExpected, transformedActual);
}
public void PowerTest_FractionPolynomial()
{
var integerDomain = new IntegerDomain();
var longDomain = new LongDomain();
var bigIntegerDomain = new BigIntegerDomain();
var variableName = "x";
var integerPolynomialField = new UnivarPolynomEuclideanDomain <Fraction <int> >(
variableName,
new FractionField <int>(integerDomain));
var longPolynomialField = new UnivarPolynomEuclideanDomain <Fraction <long> >(
variableName,
new FractionField <long>(longDomain));
var bigIntegerPolynomialField = new UnivarPolynomEuclideanDomain <Fraction <BigInteger> >(
variableName,
new FractionField <BigInteger>(bigIntegerDomain));
// Leitores
var integerParser = new IntegerParser <string>();
var longParser = new LongParser <string>();
var bigIntegerParser = new BigIntegerParser <string>();
var integerConversion = new OuterElementFractionConversion <int, int>(new ElementToElementConversion <int>(), integerDomain);
var longToIntegerConversion = new OuterElementFractionConversion <int, long>(new LongToIntegerConversion(), longDomain);
var bigIntegerToIntegerConversion = new OuterElementFractionConversion <int, BigInteger>(new BigIntegerToIntegerConversion(), bigIntegerDomain);
var intPowers = new int[3] {
2, 3, 4
};
var longPowers = new long[3] {
2, 3, 4
};
var bigIntPowers = new BigInteger[3] {
2, 3, 4
};
var polynomialsTexts = new string[3] {
"1/3*x^3-2/3*x^2+3/2*x-1/2", "2*x^2+4/3*x+4/9", "7/5*x+1"
};
var expectedPolinomialsTexts = new string[3] {
"1/9*x^6-4/9*x^5+13/9*x^4-7/3*x^3+35/12*x^2-3/2*x+1/4",
"8*x^6+16*x^5+16*x^4+256/27*x^3+32/9*x^2+64/81*x+64/729",
"2401/625*x^4+1372/125*x^3+294/25*x^2+28/5*x+1"
};
// Coeficientes inteiros.
for (int i = 0; i < 3; ++i)
{
var polynomialValue = TestsHelper.ReadFractionalCoeffsUnivarPol(
polynomialsTexts[i],
integerDomain,
integerParser,
integerConversion,
variableName);
var expectedPolynomial = TestsHelper.ReadFractionalCoeffsUnivarPol(
expectedPolinomialsTexts[i],
integerDomain,
integerParser,
integerConversion,
variableName);
var actualPolynomial = MathFunctions.Power(polynomialValue, intPowers[i], integerPolynomialField);
Assert.AreEqual(expectedPolynomial, actualPolynomial);
}
// Coeficientes longos.
for (int i = 0; i < 3; ++i)
{
var polynomialValue = TestsHelper.ReadFractionalCoeffsUnivarPol(
polynomialsTexts[i],
longDomain,
longParser,
longToIntegerConversion,
variableName);
var expectedPolynomial = TestsHelper.ReadFractionalCoeffsUnivarPol(
expectedPolinomialsTexts[i],
longDomain,
longParser,
longToIntegerConversion,
variableName);
var actualPolynomial = MathFunctions.Power(polynomialValue, intPowers[i], longPolynomialField);
Assert.AreEqual(expectedPolynomial, actualPolynomial);
}
// Coeficientes correspondentes a inteiros de precisão arbitrária.
for (int i = 0; i < 3; ++i)
{
var polynomialValue = TestsHelper.ReadFractionalCoeffsUnivarPol(
polynomialsTexts[i],
bigIntegerDomain,
bigIntegerParser,
bigIntegerToIntegerConversion,
variableName);
var expectedPolynomial = TestsHelper.ReadFractionalCoeffsUnivarPol(
expectedPolinomialsTexts[i],
bigIntegerDomain,
bigIntegerParser,
bigIntegerToIntegerConversion,
variableName);
var actualPolynomial = MathFunctions.Power(polynomialValue, intPowers[i], bigIntegerPolynomialField);
Assert.AreEqual(expectedPolynomial, actualPolynomial);
}
}
public void Statistcs_EnumGeneralizeMeanAlgorithmTest()
{
var integerNumb = new IntegerDomain();
var target = new EnumGeneralizedMeanAlgorithm <int, double, int>(
i => i,
d => d,
(d, i) => d / i,
new DoubleField(),
integerNumb);
var integerSequence = new IntegerSequence();
for (var i = 1; i < 5000; ++i)
{
integerSequence.Add(i);
var expected = (i + 1) / 2.0;
var actual = target.Run(integerSequence);
Assert.AreEqual(expected, actual);
}
integerSequence = new IntegerSequence();
var n = 1000000;
integerSequence.Add(1, n);
var outerExpected = (n + 1) / 2.0;
var outerActual = target.Run(integerSequence);
Assert.AreEqual(outerExpected, outerActual);
var bigIntegerDomain = new BigIntegerDomain();
var fractionField = new FractionField <BigInteger>(bigIntegerDomain);
var fractionTarget = new EnumGeneralizedMeanAlgorithm <int, Fraction <BigInteger>, int>(
i => new Fraction <BigInteger>(i, 1, bigIntegerDomain),
d => d,
(d, i) => d.Divide(i, bigIntegerDomain),
fractionField,
integerNumb);
var fractionExpected = new Fraction <BigInteger>(n + 1, 2, bigIntegerDomain);
var fractionActual = fractionTarget.Run(integerSequence);
Assert.AreEqual(fractionExpected, fractionActual);
// Teste com alteração da função directa
fractionTarget.DirectFunction = i => new Fraction <BigInteger>(new BigInteger(i) * i, 1, bigIntegerDomain);
fractionExpected = new Fraction <BigInteger>(
(new BigInteger(n) + BigInteger.One) * (2 * new BigInteger(n) + 1), 6, bigIntegerDomain);
fractionActual = fractionTarget.Run(integerSequence);
Assert.AreEqual(fractionExpected, fractionActual);
// Teste com transformação
var transformedTarget = new EnumGeneralizedMeanAlgorithm <BigInteger, Fraction <BigInteger>, int>(
i => new Fraction <BigInteger>(i, 1, bigIntegerDomain),
d => d,
(d, i) => d.Divide(i, bigIntegerDomain),
fractionField,
integerNumb);
var transformedSeq = new TransformEnumerable <int, BigInteger>(
integerSequence,
i => new BigInteger(i) * i);
var transformedExpected = new Fraction <BigInteger>(
(new BigInteger(n) + BigInteger.One) * (2 * new BigInteger(n) + 1), 6, bigIntegerDomain);
var transformedActual = transformedTarget.Run(transformedSeq);
Assert.AreEqual(transformedExpected, transformedActual);
}
public void PowerTest_IntegerPolynomial()
{
var integerDomain = new IntegerDomain();
var longDomain = new LongDomain();
var bigIntegerDomain = new BigIntegerDomain();
var variableName = "x";
var intPolDomain = new UnivarPolynomRing <int>(variableName, integerDomain);
var longPolDomain = new UnivarPolynomRing <long>(variableName, longDomain);
var bigIntegerPolDomain = new UnivarPolynomRing <BigInteger>(variableName, bigIntegerDomain);
// Leitores
var integerParser = new IntegerParser <string>();
var longParser = new LongParser <string>();
var bigIntegerParser = new BigIntegerParser <string>();
var integerConversion = new ElementToElementConversion <int>();
var longToIntegerConversion = new LongToIntegerConversion();
var bigIntegerToIntegerConversion = new BigIntegerToIntegerConversion();
var intPowers = new int[3] {
2, 3, 4
};
var longPowers = new long[3] {
2, 3, 4
};
var bigIntPowers = new BigInteger[3] {
2, 3, 4
};
var polynomialsTexts = new string[3] {
"x^3-2*x^2+3*x-1", "2*x^2+4*x+4", "x+1"
};
var expectedPolinomialsTexts = new string[3] {
"x^6-4*x^5+10*x^4-14*x^3+13*x^2-6*x+1",
"8*x^6+48*x^5+144*x^4+256*x^3+288*x^2+192*x+64",
"x^4+4*x^3+6*x^2+4*x+1"
};
// Coeficientes inteiros.
for (int i = 0; i < 3; ++i)
{
var polynomialValue = TestsHelper.ReadUnivarPolynomial(
polynomialsTexts[i],
integerDomain,
integerParser,
integerConversion,
variableName);
var expectedPolynomial = TestsHelper.ReadUnivarPolynomial(
expectedPolinomialsTexts[i],
integerDomain,
integerParser,
integerConversion,
variableName);
var actualPolynomial = MathFunctions.Power(polynomialValue, intPowers[i], intPolDomain);
Assert.AreEqual(expectedPolynomial, actualPolynomial);
}
// Coeficientes longos.
for (int i = 0; i < 3; ++i)
{
var polynomialValue = TestsHelper.ReadUnivarPolynomial(
polynomialsTexts[i],
longDomain,
longParser,
longToIntegerConversion,
variableName);
var expectedPolynomial = TestsHelper.ReadUnivarPolynomial(
expectedPolinomialsTexts[i],
longDomain,
longParser,
longToIntegerConversion,
variableName);
var actualPolynomial = MathFunctions.Power(polynomialValue, intPowers[i], longPolDomain);
Assert.AreEqual(expectedPolynomial, actualPolynomial);
}
// Coeficientes correspondentes a inteiros de precisão arbitrária.
for (int i = 0; i < 3; ++i)
{
var polynomialValue = TestsHelper.ReadUnivarPolynomial(
polynomialsTexts[i],
bigIntegerDomain,
bigIntegerParser,
bigIntegerToIntegerConversion,
variableName);
var expectedPolynomial = TestsHelper.ReadUnivarPolynomial(
expectedPolinomialsTexts[i],
bigIntegerDomain,
bigIntegerParser,
bigIntegerToIntegerConversion,
variableName);
var actualPolynomial = MathFunctions.Power(polynomialValue, intPowers[i], bigIntegerPolDomain);
Assert.AreEqual(expectedPolynomial, actualPolynomial);
}
}
public void GetPolynomialDerivativeTest_IntegerMatrix()
{
// Os valores a serem lidos
var polynomialText = "[[1,2],[3,4]]*x^2-[[1,0],[0,1]]*x+[[7,6],[9,8]]";
var polynomialDerivativeText = "[[2,4],[6,8]]*x+[[-1,0],[0,-1]]";
var variableName = "x";
var arrayDelimiters = new Dictionary <string, string>();
arrayDelimiters.Add("left_bracket", "right_bracket");
// Os domínios responsáveis sobre as operações sobre os inteiros.
var integerDomain = new IntegerDomain();
var longDomain = new LongDomain();
var bigIntegerDomain = new BigIntegerDomain();
// Os leitore sde inteiros
var integerParser = new IntegerParser <string>();
var longParser = new LongParser <string>();
var bigIntegerParser = new BigIntegerParser <string>();
// As fábricas responsáveis pela instanciação de matrizes
var integerSquareArrayMatrixfactory = new ArraySquareMatrixFactory <int>();
var longSquareArrayMatrixFactory = new ArraySquareMatrixFactory <long>();
var bigIntegerSquareArrayMatrixfactory = new ArraySquareMatrixFactory <BigInteger>();
// Os anéis de matrizes
var integerGenericMatrixRing = new GeneralMatrixRing <int>(
2,
integerSquareArrayMatrixfactory,
integerDomain);
var longGenericMatrixRing = new GeneralMatrixRing <long>(
2,
longSquareArrayMatrixFactory,
longDomain);
var bigIntegerGenericMatrixRing = new GeneralMatrixRing <BigInteger>(
2,
bigIntegerSquareArrayMatrixfactory,
bigIntegerDomain);
// Os objectos responsáveis pela conversão entre os coeficientes e o grau (inteiro)
var integerMatrixConversion = new CantConvertConversion <int, IMatrix <int> >();
var longMatrixConversion = new CantConvertConversion <int, IMatrix <long> >();
var bigIntegerMatrixConversion = new CantConvertConversion <int, IMatrix <BigInteger> >();
var integerMatrixConfigParser = new ConfigMatrixParser <int, IMatrix <int> >(
integerParser,
2,
2,
(i, j) => integerSquareArrayMatrixfactory.CreateMatrix(i, j));
integerMatrixConfigParser.SeparatorSymbType = "comma";
integerMatrixConfigParser.MapInternalDelimiters("left_bracket", "right_bracket");
integerMatrixConfigParser.AddBlanckSymbolType("blancks");
var longMatrixConfigParser = new ConfigMatrixParser <long, IMatrix <long> >(
longParser,
2,
2,
(i, j) => longSquareArrayMatrixFactory.CreateMatrix(i, j));
longMatrixConfigParser.SeparatorSymbType = "comma";
longMatrixConfigParser.MapInternalDelimiters("left_bracket", "right_bracket");
longMatrixConfigParser.AddBlanckSymbolType("blancks");
var bigIntegerMatrixConfigParser = new ConfigMatrixParser <BigInteger, IMatrix <BigInteger> >(
bigIntegerParser,
2,
2,
(i, j) => bigIntegerSquareArrayMatrixfactory.CreateMatrix(i, j));
bigIntegerMatrixConfigParser.SeparatorSymbType = "comma";
bigIntegerMatrixConfigParser.MapInternalDelimiters("left_bracket", "right_bracket");
bigIntegerMatrixConfigParser.AddBlanckSymbolType("blancks");
// Leitura dos polinómios e subsequente teste.
var integerPolynomial = TestsHelper.ReadUnivarPolynomial <IMatrix <int> >(
polynomialText,
integerGenericMatrixRing,
integerMatrixConfigParser,
integerMatrixConversion,
variableName,
arrayDelimiters);
var integerExpectedDerivative = TestsHelper.ReadUnivarPolynomial(
polynomialDerivativeText,
integerGenericMatrixRing,
integerMatrixConfigParser,
integerMatrixConversion,
variableName,
arrayDelimiters,
true);
var integerActualDerivative = integerPolynomial.GetPolynomialDerivative(integerGenericMatrixRing);
Assert.IsTrue(
new UnivarPolynomNormalFormEqualityComparer <IMatrix <int> >(integerGenericMatrixRing).Equals(integerExpectedDerivative, integerActualDerivative),
string.Format("Expected {0} isn't equal to actual {1}.", integerExpectedDerivative, integerActualDerivative));
var longPolynomial = TestsHelper.ReadUnivarPolynomial(
polynomialText,
longGenericMatrixRing,
longMatrixConfigParser,
longMatrixConversion,
variableName,
arrayDelimiters);
var longExpectedDerivative = TestsHelper.ReadUnivarPolynomial(
polynomialDerivativeText,
longGenericMatrixRing,
longMatrixConfigParser,
longMatrixConversion,
variableName,
arrayDelimiters,
true);
var longActualDerivative = longPolynomial.GetPolynomialDerivative(longGenericMatrixRing);
Assert.IsTrue(
new UnivarPolynomNormalFormEqualityComparer <IMatrix <long> >(longGenericMatrixRing).Equals(longExpectedDerivative, longActualDerivative),
string.Format("Expected {0} isn't equal to actual {1}.", integerExpectedDerivative, integerActualDerivative));
var bigIntegerPolynomial = TestsHelper.ReadUnivarPolynomial(
polynomialText,
bigIntegerGenericMatrixRing,
bigIntegerMatrixConfigParser,
bigIntegerMatrixConversion,
variableName,
arrayDelimiters);
var bigIntegerExpectedDerivative = TestsHelper.ReadUnivarPolynomial(
polynomialDerivativeText,
bigIntegerGenericMatrixRing,
bigIntegerMatrixConfigParser,
bigIntegerMatrixConversion,
variableName,
arrayDelimiters,
true);
var bigIntegerActualDerivative = bigIntegerPolynomial.GetPolynomialDerivative(bigIntegerGenericMatrixRing);
Assert.IsTrue(
new UnivarPolynomNormalFormEqualityComparer <IMatrix <BigInteger> >(
bigIntegerGenericMatrixRing).Equals(bigIntegerExpectedDerivative,
bigIntegerActualDerivative),
string.Format("Expected {0} isn't equal to actual {1}.", integerExpectedDerivative, integerActualDerivative));
}
public void GetPolynomialDerivativeTest_IntegerPolynomialAsCoefficients()
{
var polynomialText = "(y^2+y+1)*x^3-2*x^2*y+x*(y^5-3)+4";
var polynomialDerivativeText = "3*(y^2+y+1)*x^2-4*y*x+y^5-3";
var variableName = "x";
var coeffsVariableName = "y";
// Os domínios responsáveis pelas operações sobre os inteiros.
var integerDomain = new IntegerDomain();
var longDomain = new LongDomain();
var bigIntegerDomain = new BigIntegerDomain();
// Os leitore sde inteiros
var integerParser = new IntegerParser <string>();
var longParser = new LongParser <string>();
var bigIntegerParser = new BigIntegerParser <string>();
// Definição das conversões.
var integerConversion = new ElementToElementConversion <int>();
var longConversion = new LongToIntegerConversion();
var bigIntegerConversion = new BigIntegerToIntegerConversion();
var integerPolConvertion = new UnivarPolynomNormalFormToIntegerConversion <int>(
coeffsVariableName,
integerConversion,
integerDomain);
var longPolConvertion = new UnivarPolynomNormalFormToIntegerConversion <long>(
coeffsVariableName,
longConversion,
longDomain);
var bigIntegerPolConvertion = new UnivarPolynomNormalFormToIntegerConversion <BigInteger>(
coeffsVariableName,
bigIntegerConversion,
bigIntegerDomain);
// Definição dos anéis polinomiais.
var integerPolynomialRing = new UnivarPolynomRing <int>(coeffsVariableName, integerDomain);
var longPolynomialRing = new UnivarPolynomRing <long>(coeffsVariableName, longDomain);
var bigIntegerPolynomialRing = new UnivarPolynomRing <BigInteger>(coeffsVariableName, bigIntegerDomain);
// Definição dos leitores polinomiais.
var integerPolynomialParser = new UnivarPolNormalFormParser <int>(
coeffsVariableName,
integerConversion,
integerParser,
integerDomain);
var longPolynomialParser = new UnivarPolNormalFormParser <long>(
coeffsVariableName,
longConversion,
longParser,
longDomain);
var bigIntegerPolynomialParser = new UnivarPolNormalFormParser <BigInteger>(
coeffsVariableName,
bigIntegerConversion,
bigIntegerParser,
bigIntegerDomain);
// Definição dos testes.
var integerPolynomial = TestsHelper.ReadUnivarPolynomial <UnivariatePolynomialNormalForm <int> >(
polynomialText,
integerPolynomialRing,
integerPolynomialParser,
integerPolConvertion,
variableName);
var integerExpectedPol = TestsHelper.ReadUnivarPolynomial <UnivariatePolynomialNormalForm <int> >(
polynomialDerivativeText,
integerPolynomialRing,
integerPolynomialParser,
integerPolConvertion,
variableName);
var integerActualPlynomial = integerPolynomial.GetPolynomialDerivative(integerPolynomialRing);
Assert.AreEqual(integerExpectedPol, integerActualPlynomial);
var longPolynomial = TestsHelper.ReadUnivarPolynomial <UnivariatePolynomialNormalForm <long> >(
polynomialText,
longPolynomialRing,
longPolynomialParser,
longPolConvertion,
variableName);
var longExpectedPol = TestsHelper.ReadUnivarPolynomial <UnivariatePolynomialNormalForm <long> >(
polynomialDerivativeText,
longPolynomialRing,
longPolynomialParser,
longPolConvertion,
variableName);
var longActualPlynomial = longPolynomial.GetPolynomialDerivative(longPolynomialRing);
Assert.AreEqual(longExpectedPol, longActualPlynomial);
var bigIntegerPolynomial = TestsHelper.ReadUnivarPolynomial <UnivariatePolynomialNormalForm <BigInteger> >(
polynomialText,
bigIntegerPolynomialRing,
bigIntegerPolynomialParser,
bigIntegerPolConvertion,
variableName);
var bigIntegerExpectedPol = TestsHelper.ReadUnivarPolynomial <UnivariatePolynomialNormalForm <BigInteger> >(
polynomialDerivativeText,
bigIntegerPolynomialRing,
bigIntegerPolynomialParser,
bigIntegerPolConvertion,
variableName);
var bigIntegerActualPlynomial = bigIntegerPolynomial.GetPolynomialDerivative(bigIntegerPolynomialRing);
Assert.AreEqual(bigIntegerExpectedPol, bigIntegerExpectedPol);
}
public void GetPolynomialDerivativeTest_SimpleInteger()
{
// Representação dos polinómios.
var polynomText = "x^1000-2*x^550+1000*x^10+50";
var polDerivativeText = "1000*x^999-1100*x^549+10000*x^9";
var variableName = "x";
// Estabelece os domínios.
var integerDomain = new IntegerDomain();
var longDomain = new LongDomain();
var bigIntegerDomain = new BigIntegerDomain();
// Estabelece os conversores.
var integerToIntegerConv = new ElementToElementConversion <int>();
var integerToLongConv = new LongToIntegerConversion();
var integerToBigIntegerConvsersion = new BigIntegerToIntegerConversion();
// Estabelece os leitores individuais.
var integerParser = new IntegerParser <string>();
var longParser = new LongParser <string>();
var bigIntegerParser = new BigIntegerParser <string>();
// Estabelece os polinómios.
var integerPolynomial = TestsHelper.ReadUnivarPolynomial(
polynomText,
integerDomain,
integerParser,
integerToIntegerConv,
variableName);
var integerExpectedPolynomial = TestsHelper.ReadUnivarPolynomial(
polDerivativeText,
integerDomain,
integerParser,
integerToIntegerConv,
variableName);
var integerActualDerivative = integerPolynomial.GetPolynomialDerivative(integerDomain);
// Verifica se os polinómios são válidos.
Assert.AreEqual(integerExpectedPolynomial, integerActualDerivative);
// Estabelece os polinómios.
var longPolynomial = TestsHelper.ReadUnivarPolynomial(
polynomText,
longDomain,
longParser,
integerToLongConv,
variableName);
var longExpectedPolynomial = TestsHelper.ReadUnivarPolynomial(
polDerivativeText,
longDomain,
longParser,
integerToLongConv,
variableName);
var longActualDerivative = longPolynomial.GetPolynomialDerivative(longDomain);
// Verifica se os polinómios são válidos.
Assert.AreEqual(longExpectedPolynomial, longActualDerivative);
// Estabelece os polinómios.
var bigIntegerPolynomial = TestsHelper.ReadUnivarPolynomial(
polynomText,
bigIntegerDomain,
bigIntegerParser,
integerToBigIntegerConvsersion,
variableName);
var bigIntegerExpectedPolynomial = TestsHelper.ReadUnivarPolynomial(
polDerivativeText,
bigIntegerDomain,
bigIntegerParser,
integerToBigIntegerConvsersion,
variableName);
var bigIntegerActualDerivative = bigIntegerPolynomial.GetPolynomialDerivative(bigIntegerDomain);
// Verifica se os polinómios são válidos.
Assert.AreEqual(bigIntegerExpectedPolynomial, bigIntegerActualDerivative);
}
public void GetPolynomialDerivativeTest_IntegerFraction()
{
var polynomialText = "1/2*x^5+3/4*x^4-2/7*x^3+5/3*x^2+1/5*x+9";
var polynomialDerivativeText = "5/2*x^4+3*x^3-6/7*x^2+10/3*x+1/5";
var variableName = "x";
var integerDomain = new IntegerDomain();
var longDomain = new LongDomain();
var bigIntegerDomain = new BigIntegerDomain();
var integerParser = new IntegerParser <string>();
var longParser = new LongParser <string>();
var bigIntegerParser = new BigIntegerParser <string>();
var longConversion = new LongToIntegerConversion();
var bigIntegerConversion = new BigIntegerToIntegerConversion();
var integerFractionConversion = new ElementFractionConversion <int>(integerDomain);
var longfractionConversion = new OuterElementFractionConversion <int, long>(longConversion, longDomain);
var bigIntegerfractionConversion = new OuterElementFractionConversion <int, BigInteger>(bigIntegerConversion, bigIntegerDomain);
var integerFractionField = new FractionField <int>(integerDomain);
var longFractionField = new FractionField <long>(longDomain);
var bigIntegerFractionField = new FractionField <BigInteger>(bigIntegerDomain);
// Coeficientes inteiros
var integerPolynomial = TestsHelper.ReadFractionalCoeffsUnivarPol <int, IntegerDomain>(
polynomialText,
integerDomain,
integerParser,
integerFractionConversion,
variableName);
var integerPolynomialDerivative = TestsHelper.ReadFractionalCoeffsUnivarPol <int, IntegerDomain>(
polynomialDerivativeText,
integerDomain,
integerParser,
integerFractionConversion,
variableName);
var integerActualPolDerivative = integerPolynomial.GetPolynomialDerivative(integerFractionField);
Assert.AreEqual(integerPolynomialDerivative, integerActualPolDerivative);
// Coeficientes longos
var longPolynomial = TestsHelper.ReadFractionalCoeffsUnivarPol <long, LongDomain>(
polynomialText,
longDomain,
longParser,
longfractionConversion,
variableName);
var longPolynomialDerivative = TestsHelper.ReadFractionalCoeffsUnivarPol <long, LongDomain>(
polynomialDerivativeText,
longDomain,
longParser,
longfractionConversion,
variableName);
var longActualPolDerivative = longPolynomial.GetPolynomialDerivative(longFractionField);
Assert.AreEqual(longPolynomialDerivative, longActualPolDerivative);
var bigIntegerPolynomial = TestsHelper.ReadFractionalCoeffsUnivarPol <BigInteger, BigIntegerDomain>(
polynomialText,
bigIntegerDomain,
bigIntegerParser,
bigIntegerfractionConversion,
variableName);
var bigIntegerPolynomialDerivative = TestsHelper.ReadFractionalCoeffsUnivarPol <BigInteger, BigIntegerDomain>(
polynomialDerivativeText,
bigIntegerDomain,
bigIntegerParser,
bigIntegerfractionConversion,
variableName);
var bigIntegerActualPolDerivative = bigIntegerPolynomial.GetPolynomialDerivative(bigIntegerFractionField);
Assert.AreEqual(bigIntegerPolynomialDerivative, bigIntegerActualPolDerivative);
}
public void PowerTest_BigIntegerFraction()
{
var domain = new BigIntegerDomain();
var multiplier = new FractionField <BigInteger>(domain);
var intPowers = new int[] { 2, 3, 4, 1, 20, 13 };
var longPowers = new long[] { 2, 3, 4, 1, 20, 13 };
var bigIntPowers = new BigInteger[] { 2, 3, 4, 1, 20, 13 };
var values = new[] {
new Fraction <BigInteger>(13, 17, domain),
new Fraction <BigInteger>(25, 23, domain),
new Fraction <BigInteger>(11, 15, domain),
new Fraction <BigInteger>(100, 99, domain),
new Fraction <BigInteger>(1, 2, domain),
new Fraction <BigInteger>(3, 5, domain)
};
var expected = new[] {
new Fraction <BigInteger>(169, 289, domain),
new Fraction <BigInteger>(15625, 12167, domain),
new Fraction <BigInteger>(14641, 50625, domain),
new Fraction <BigInteger>(100, 99, domain),
new Fraction <BigInteger>(1, 1048576, domain),
new Fraction <BigInteger>(1594323, 1220703125, domain)
};
// Potências inteiras.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], intPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
// Potências longas
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], longPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
// Potências com inteiros grandes.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], bigIntPowers[i], multiplier);
Assert.AreEqual(expected[i], actual);
}
// Potências genéricas.
var integerNumber = new IntegerDomain();
var longNumber = new LongDomain();
var bigIntegerNumber = new BigIntegerDomain();
// Potências inteiras.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], intPowers[i], multiplier, integerNumber);
Assert.AreEqual(expected[i], actual);
}
// Potências longas
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], longPowers[i], multiplier, longNumber);
Assert.AreEqual(expected[i], actual);
}
// Potências com inteiros grandes.
for (int i = 0; i < intPowers.Length; ++i)
{
var actual = MathFunctions.Power(values[i], bigIntPowers[i], multiplier, bigIntegerNumber);
Assert.AreEqual(expected[i], actual);
}
}