/**
* OVERVIEW: The test case "test7" covers around 6.0% (low percentage) of statements in "Rational"
*/
@Test
public void test7() throws Throwable {
// The test case instantiates a "Rational" with numerator equal to -1L,
// and denominator equal to -1L.
// The execution of this constructor implicitly covers the following 1
// conditions:
// - the condition " denominator equals to 0L" is FALSE;
Rational rational0 = new Rational((-1L), (-1L));
// The test case declares an object of the class "Rational" whose value
// is the power of "rational0"
Rational rational1 = rational0.pow(3404);
// Then, it tests:
// 1) whether the integer value of "rational1" is equal to 1;
assertEquals(1, rational1.intValue());
// 2) whether the short value of "rational1" is equal to 1;
assertEquals(1, rational1.shortValue());
}
/**
* OVERVIEW: The test case "test0" covers around 7.0% (low percentage) of statements in "Rational"
*/
@Test
public void test0() throws Throwable {
// The test case instantiates a "Rational" with numerator equal to
// -82L, and denominator equal to -82L.
// The execution of this constructor implicitly covers the following 1
// conditions:
// - the condition " denominator equals to 0L" is FALSE;
Rational rational0 = new Rational((-82L), (-82L));
// The test case declares an object of the class "Rational" whose value
// is equal to the absolute value of "rational0"
Rational rational1 = rational0.abs();
// Then, it tests:
// 1) whether the integer value of "rational1" is equal to -1;
// FIXME: This assertion should test if the absolute value is equal to 1
// and not -1, because an absolute value is always positive
// assertEquals(-1, rational1.intValue());
assertEquals(1, rational1.intValue());
// 2) whether the denominator of rational1 is equal to (-82L);
// FIXME: This assertion should test if the absolute value of
// the denominator is 82L and not -82L
assertEquals((82L), rational1.denominator);
}
