Best Kluent code snippet using org.amshove.kluent.tests.numerical.ShouldBeNearShould.passWhenTestingAFloatWhichIsEqualToExpectedAndNan
ShouldBeNearShould.kt
Source: ShouldBeNearShould.kt
...51 fun passWhenTestingAFloatWhichIsTheUpperBound() {52 (5.6f).shouldBeNear(5.5f, 0.1f)53 }54 @Test55 fun passWhenTestingAFloatWhichIsEqualToExpectedAndNan() {56 Float.NaN.shouldBeNear(Float.NaN, 0.1f)57 }58 @Test59 fun passWhenTestingAFloatWhichIsEqualToExpectedAndInfinite() {60 Float.POSITIVE_INFINITY.shouldBeNear(Float.POSITIVE_INFINITY, 0.1f)61 }62 @Test63 fun passWhenTestingAFloatWhichIsEqualToExpectedAndNegativeInfinite() {64 Float.NEGATIVE_INFINITY.shouldBeNear(Float.NEGATIVE_INFINITY, 0.1f)65 }66 @Test67 fun failWhenTestingAFloatWhichIsBelowTheBound() {68 assertFails {69 (5.3f).shouldBeNear(5.5f, 0.1f)...
passWhenTestingAFloatWhichIsEqualToExpectedAndNan
Using AI Code Generation
1@DisplayName ( "passWhenTestingAFloatWhichIsEqualToExpectedAndNan" ) @Test fun passWhenTestingAFloatWhichIsEqualToExpectedAndNan () { val result = 0.0f shouldBeNear 0.0f }2@DisplayName ( "failWhenTestingAFloatWhichIsEqualToExpectedAndNan" ) @Test fun failWhenTestingAFloatWhichIsEqualToExpectedAndNan () { assertFails { 0.0f shouldBeNear Float . NaN } }3@DisplayName ( "failWhenTestingAFloatWhichIsEqualToExpectedAndNan" ) @Test fun failWhenTestingAFloatWhichIsEqualToExpectedAndNan () { assertFails { 0.0f shouldBeNear Float . NaN } }4@DisplayName ( "passWhenTestingAFloatWhichIsEqualToExpectedAndNan" ) @Test fun passWhenTestingAFloatWhichIsEqualToExpectedAndNan () { val result = 0.0f shouldBeNear 0.0f }5@DisplayName ( "failWhenTestingAFloatWhichIsEqualToExpectedAndNan" ) @Test fun failWhenTestingAFloatWhichIsEqualToExpectedAndNan () { assertFails { 0.0f shouldBeNear Float . NaN } }6@DisplayName ( "failWhenTestingAFloatWhichIsEqualToExpectedAndNan" ) @Test fun failWhenTestingAFloatWhichIsEqualToExpectedAndNan () { assertFails { 0.0f shouldBeNear Float . NaN } }
passWhenTestingAFloatWhichIsEqualToExpectedAndNan
Using AI Code Generation
1public void passWhenTestingAFloatWhichIsEqualToExpectedAndNan() {2 float expected = Float.NaN;3 float actual = Float.NaN;4 actual.shouldBeNear(expected, 0.0f);5}6public void passWhenTestingAFloatWhichIsEqualToExpectedAndPosInf() {7 float expected = Float.POSITIVE_INFINITY;8 float actual = Float.POSITIVE_INFINITY;9 actual.shouldBeNear(expected, 0.0f);10}11public void passWhenTestingAFloatWhichIsEqualToExpectedAndNegInf() {12 float expected = Float.NEGATIVE_INFINITY;13 float actual = Float.NEGATIVE_INFINITY;14 actual.shouldBeNear(expected, 0.0f);15}16public void passWhenTestingAFloatWhichIsEqualToExpectedAndPosMax() {17 float expected = Float.MAX_VALUE;18 float actual = Float.MAX_VALUE;19 actual.shouldBeNear(expected, 0.0f);20}21public void passWhenTestingAFloatWhichIsEqualToExpectedAndNegMax() {22 float expected = -Float.MAX_VALUE;23 float actual = -Float.MAX_VALUE;24 actual.shouldBeNear(expected, 0.0f);25}26public void passWhenTestingAFloatWhichIsEqualToExpectedAndPosMin() {27 float expected = Float.MIN_VALUE;28 float actual = Float.MIN_VALUE;29 actual.shouldBeNear(expected, 0.0f);30}
passWhenTestingAFloatWhichIsEqualToExpectedAndNan
Using AI Code Generation
1public void shouldPassWhenTestingAFloatWhichIsEqualToExpectedAndNan() {2 float a = Float.NaN;3 float b = Float.NaN;4 a.shouldBeNear(b, 0.0f);5}6public void shouldPassWhenTestingADoubleWhichIsEqualToExpectedAndNan() {7 double a = Double.NaN;8 double b = Double.NaN;9 a.shouldBeNear(b, 0.0);10}11public void shouldPassWhenTestingAFloatWhichIsEqualToExpectedAndInfinity() {12 float a = Float.POSITIVE_INFINITY;13 float b = Float.POSITIVE_INFINITY;14 a.shouldBeNear(b, 0.0f);15}16public void shouldPassWhenTestingADoubleWhichIsEqualToExpectedAndInfinity() {17 double a = Double.POSITIVE_INFINITY;18 double b = Double.POSITIVE_INFINITY;19 a.shouldBeNear(b, 0.0);20}21public void shouldPassWhenTestingAFloatWhichIsEqualToExpectedAndNegativeInfinity() {22 float a = Float.NEGATIVE_INFINITY;23 float b = Float.NEGATIVE_INFINITY;24 a.shouldBeNear(b, 0.0f);25}26public void shouldPassWhenTestingADoubleWhichIsEqualToExpectedAndNegativeInfinity() {27 double a = Double.NEGATIVE_INFINITY;28 double b = Double.NEGATIVE_INFINITY;29 a.shouldBeNear(b, 0.0);30}31@Test(expected = AssertionError.class)
passWhenTestingAFloatWhichIsEqualToExpectedAndNan
Using AI Code Generation
1fun shouldBeNearShouldPassWhenTestingAFloatWhichIsEqualToExpectedAndNan() {2 0.0f.shouldBeNear( 0.0f , 0.0f )3}4fun shouldBeNearShouldPassWhenTestingADoubleWhichIsEqualToExpectedAndNan() {5 0.0.shouldBeNear( 0.0 , 0.0 )6}7fun shouldBeNearShouldFailWhenTestingAFloatWhichIsNotEqualToExpectedAndNan() {8 shouldThrow<AssertionError> {9 1.0f.shouldBeNear( 0.0f , 0.0f )10 }11}12fun shouldBeNearShouldFailWhenTestingADoubleWhichIsNotEqualToExpectedAndNan() {13 shouldThrow<AssertionError> {14 1.0.shouldBeNear( 0.0 , 0.0 )15 }16}17fun shouldBeNearShouldPassWhenTestingAFloatWhichIsEqualToExpectedAndInfinity() {18 Float .POSITIVE_INFINITY.shouldBeNear( Float .POSITIVE_INFINITY, 0.0f )19}20fun shouldBeNearShouldPassWhenTestingADoubleWhichIsEqualToExpectedAndInfinity() {21 Double .POSITIVE_INFINITY.shouldBeNear( Double .POSITIVE_INFINITY, 0.0 )22}23fun shouldBeNearShouldFailWhenTestingAFloatWhichIsNotEqualToExpectedAndInfinity() {
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