public void TestToString() { LSL_Types.LSLFloat testFloat; foreach (KeyValuePair<double, string> number in m_doubleStringSet) { testFloat = new LSL_Types.LSLFloat(number.Key); Assert.AreEqual(number.Value, testFloat.ToString()); } }
public void TestNotEqualOperator() { LSL_Types.LSLFloat testFloatA, testFloatB; foreach (double number in m_doubleList) { testFloatA = new LSL_Types.LSLFloat(number); testFloatB = new LSL_Types.LSLFloat(number + 1.0); Assert.IsTrue(testFloatA != testFloatB); testFloatB = new LSL_Types.LSLFloat(number); Assert.IsFalse(testFloatA != testFloatB); } }
public void TestDecrementOperator() { LSL_Types.LSLFloat testFloat; double testNumber; foreach (double number in m_doubleList) { testFloat = new LSL_Types.LSLFloat(number); testNumber = testFloat--; Assert.That(testNumber, new DoubleToleranceConstraint(number, _lowPrecisionTolerance)); testNumber = testFloat; Assert.That(testNumber, new DoubleToleranceConstraint(number - 1.0, _lowPrecisionTolerance)); testNumber = --testFloat; Assert.That(testNumber, new DoubleToleranceConstraint(number - 2.0, _lowPrecisionTolerance)); } }
public void TestImplicitCastLSLFloatToDouble() { double testNumber; LSL_Types.LSLFloat testFloat; foreach (double number in m_doubleList) { testFloat = new LSL_Types.LSLFloat(number); testNumber = testFloat; Assert.That(testNumber, new DoubleToleranceConstraint(number, _lowPrecisionTolerance)); } }
public void TestExplicitCastLSLFloatToFloat() { float testFloat; float numberAsFloat; LSL_Types.LSLFloat testLSLFloat; foreach (double number in m_doubleList) { testLSLFloat = new LSL_Types.LSLFloat(number); numberAsFloat = (float)number; testFloat = (float)testLSLFloat; Assert.That((double)testFloat, new DoubleToleranceConstraint((double)numberAsFloat, _lowPrecisionTolerance)); } }
public bool PostScriptEvent(UUID itemID, string name, Object[] p) { Object[] lsl_p = new Object[p.Length]; for (int i = 0; i < p.Length ; i++) { if (p[i] is int) lsl_p[i] = new LSL_Types.LSLInteger((int)p[i]); else if (p[i] is string) lsl_p[i] = new LSL_Types.LSLString((string)p[i]); else if (p[i] is Vector3) lsl_p[i] = new LSL_Types.Vector3((Vector3)p[i]); else if (p[i] is Quaternion) lsl_p[i] = new LSL_Types.Quaternion((Quaternion)p[i]); else if (p[i] is float) lsl_p[i] = new LSL_Types.LSLFloat((float)p[i]); else lsl_p[i] = p[i]; } return PostScriptEvent(itemID, new EventParams(name, lsl_p, new DetectParams[0])); }
public void TestEqualsOperator() { TestHelpers.InMethod(); LSL_Types.LSLFloat testFloatA, testFloatB; foreach (double number in m_doubleList) { testFloatA = new LSL_Types.LSLFloat(number); testFloatB = new LSL_Types.LSLFloat(number); Assert.IsTrue(testFloatA == testFloatB); testFloatB = new LSL_Types.LSLFloat(number + 1.0); Assert.IsFalse(testFloatA == testFloatB); } }
public void TestConstructFromDouble() { LSL_Types.LSLFloat testFloat; foreach (KeyValuePair<double, double> number in m_doubleDoubleSet) { testFloat = new LSL_Types.LSLFloat(number.Key); Assert.That(testFloat.value, new DoubleToleranceConstraint(number.Value, _lowPrecisionTolerance)); } }
public void TestSubtractTwoLSLFloats() { TestHelpers.InMethod(); LSL_Types.LSLFloat testResult; foreach (KeyValuePair<double, double> number in m_doubleDoubleSet) { testResult = new LSL_Types.LSLFloat(number.Key) - new LSL_Types.LSLFloat(number.Value); Assert.That(testResult.value, new DoubleToleranceConstraint(number.Key - number.Value, _lowPrecisionTolerance)); } }
public void TestIncrementOperator() { TestHelpers.InMethod(); LSL_Types.LSLFloat testFloat; double testNumber; foreach (double number in m_doubleList) { testFloat = new LSL_Types.LSLFloat(number); testNumber = testFloat++; Assert.That(testNumber, new DoubleToleranceConstraint(number, _lowPrecisionTolerance)); testNumber = testFloat; Assert.That(testNumber, new DoubleToleranceConstraint(number + 1.0, _lowPrecisionTolerance)); testNumber = ++testFloat; Assert.That(testNumber, new DoubleToleranceConstraint(number + 2.0, _lowPrecisionTolerance)); } }
public void TestMultiplyTwoLSLFloats() { LSL_Types.LSLFloat testResult; foreach (KeyValuePair<double, double> number in m_doubleDoubleSet) { testResult = new LSL_Types.LSLFloat(number.Key) * new LSL_Types.LSLFloat(number.Value); Assert.That(testResult.value, new DoubleToleranceConstraint(number.Key * number.Value, _lowPrecisionTolerance)); } }
public void TestImplicitCastLSLFloatToBooleanTrue() { LSL_Types.LSLFloat testFloat; bool testBool; foreach (double number in m_doubleList) { testFloat = new LSL_Types.LSLFloat(number); testBool = testFloat; Assert.IsTrue(testBool); } }
public void TestDivideTwoLSLFloats() { LSL_Types.LSLFloat testResult; foreach (KeyValuePair<double, double> number in m_doubleDoubleSet) { if (number.Value != 0.0) // Let's avoid divide by zero. { testResult = new LSL_Types.LSLFloat(number.Key) / new LSL_Types.LSLFloat(number.Value); Assert.That(testResult.value, new DoubleToleranceConstraint(number.Key / number.Value, _lowPrecisionTolerance)); } } }
public void TestImplicitCastLSLFloatToBooleanFalse() { LSL_Types.LSLFloat testFloat = new LSL_Types.LSLFloat(0.0); bool testBool = testFloat; Assert.IsFalse(testBool); }
public bool PostObjectEvent(UUID itemID, string name, Object[] p) { SceneObjectPart part = m_Scene.GetSceneObjectPart(itemID); if (part == null) return false; Object[] lsl_p = new Object[p.Length]; for (int i = 0; i < p.Length ; i++) { if (p[i] is int) lsl_p[i] = new LSL_Types.LSLInteger((int)p[i]); else if (p[i] is string) lsl_p[i] = new LSL_Types.LSLString((string)p[i]); else if (p[i] is Vector3) lsl_p[i] = new LSL_Types.Vector3((Vector3)p[i]); else if (p[i] is Quaternion) lsl_p[i] = new LSL_Types.Quaternion((Quaternion)p[i]); else if (p[i] is float) lsl_p[i] = new LSL_Types.LSLFloat((float)p[i]); else lsl_p[i] = p[i]; } return PostObjectEvent(part.LocalId, new EventParams(name, lsl_p, new DetectParams[0])); }
public void TestConstructFromInt() { TestHelpers.InMethod(); LSL_Types.LSLFloat testFloat; foreach (KeyValuePair<int, double> number in m_intDoubleSet) { testFloat = new LSL_Types.LSLFloat(number.Key); Assert.That(testFloat.value, new DoubleToleranceConstraint(number.Value, _lowPrecisionTolerance)); } }