use of io.confluent.ksql.execution.expression.tree.DecimalLiteral in project ksql by confluentinc.
the class ImplicitlyCastResolverTest method shouldCastToDecimal.
@Test
public void shouldCastToDecimal() {
// Given
final Map<Literal, BigDecimal> fromLiterals = ImmutableMap.of(new IntegerLiteral(5), new BigDecimal("5.00"), new LongLiteral(5), new BigDecimal("5.00"), new DoubleLiteral(5), new BigDecimal("5.00"), new DecimalLiteral(BigDecimal.TEN), new BigDecimal("10.00"), new DecimalLiteral(new BigDecimal("10.1")), new BigDecimal("10.10"));
for (final Map.Entry<Literal, BigDecimal> entry : fromLiterals.entrySet()) {
final Literal literal = entry.getKey();
final BigDecimal expected = entry.getValue();
// When
final Expression expression = ImplicitlyCastResolver.resolve(literal, DECIMAL_5_2);
// Then
assertThat("Should cast " + literal.getClass().getSimpleName() + " to " + DECIMAL_5_2, expression, instanceOf(DecimalLiteral.class));
assertThat("Should cast " + literal.getClass().getSimpleName() + " to " + DECIMAL_5_2, ((DecimalLiteral) expression).getValue(), is(expected));
}
}
use of io.confluent.ksql.execution.expression.tree.DecimalLiteral in project ksql by confluentinc.
the class InterpretedExpressionTest method shouldEvaluateCastToString.
@Test
public void shouldEvaluateCastToString() {
// Given:
final Expression cast1 = new Cast(new IntegerLiteral(10), new Type(SqlPrimitiveType.of("STRING")));
final Expression cast2 = new Cast(new LongLiteral(1234L), new Type(SqlPrimitiveType.of("STRING")));
final Expression cast3 = new Cast(new DoubleLiteral(12.5), new Type(SqlPrimitiveType.of("STRING")));
final Expression cast4 = new Cast(new DecimalLiteral(new BigDecimal("4567.5")), new Type(SqlPrimitiveType.of("STRING")));
// When:
InterpretedExpression interpreter1 = interpreter(cast1);
InterpretedExpression interpreter2 = interpreter(cast2);
InterpretedExpression interpreter3 = interpreter(cast3);
InterpretedExpression interpreter4 = interpreter(cast4);
// Then:
assertThat(interpreter1.evaluate(ROW), is("10"));
assertThat(interpreter2.evaluate(ROW), is("1234"));
assertThat(interpreter3.evaluate(ROW), is("12.5"));
assertThat(interpreter4.evaluate(ROW), is("4567.5"));
}
use of io.confluent.ksql.execution.expression.tree.DecimalLiteral in project ksql by confluentinc.
the class InterpretedExpressionTest method shouldEvaluateCastToDouble.
@Test
public void shouldEvaluateCastToDouble() {
// Given:
final Expression cast1 = new Cast(new LongLiteral(10L), new Type(SqlPrimitiveType.of("DOUBLE")));
final Expression cast2 = new Cast(new StringLiteral("1234.5"), new Type(SqlPrimitiveType.of("DOUBLE")));
final Expression cast3 = new Cast(new IntegerLiteral(12), new Type(SqlPrimitiveType.of("DOUBLE")));
final Expression cast4 = new Cast(new DecimalLiteral(new BigDecimal("4567.5")), new Type(SqlPrimitiveType.of("DOUBLE")));
// When:
InterpretedExpression interpreter1 = interpreter(cast1);
InterpretedExpression interpreter2 = interpreter(cast2);
InterpretedExpression interpreter3 = interpreter(cast3);
InterpretedExpression interpreter4 = interpreter(cast4);
// Then:
assertThat(interpreter1.evaluate(ROW), is(10d));
assertThat(interpreter2.evaluate(ROW), is(1234.5d));
assertThat(interpreter3.evaluate(ROW), is(12d));
assertThat(interpreter4.evaluate(ROW), is(4567.5d));
}
use of io.confluent.ksql.execution.expression.tree.DecimalLiteral in project ksql by confluentinc.
the class InterpretedExpressionTest method shouldEvaluateComparisons_decimal.
@Test
public void shouldEvaluateComparisons_decimal() {
// Given:
final Expression expression1 = new ComparisonExpression(ComparisonExpression.Type.GREATER_THAN, COL8, new DecimalLiteral(new BigDecimal("1.2")));
final Expression expression2 = new ComparisonExpression(ComparisonExpression.Type.LESS_THAN, COL8, new DecimalLiteral(new BigDecimal("5.1")));
final Expression expression3 = new ComparisonExpression(ComparisonExpression.Type.EQUAL, COL8, new DecimalLiteral(new BigDecimal("10.4")));
final Expression expression4 = new ComparisonExpression(ComparisonExpression.Type.GREATER_THAN, COL8, new IntegerLiteral(5));
final Expression expression5 = new ComparisonExpression(ComparisonExpression.Type.LESS_THAN, COL8, new DoubleLiteral(6.5));
final Expression expression6 = new ComparisonExpression(ComparisonExpression.Type.LESS_THAN, COL8, new LongLiteral(10L));
// When:
InterpretedExpression interpreter1 = interpreter(expression1);
InterpretedExpression interpreter2 = interpreter(expression2);
InterpretedExpression interpreter3 = interpreter(expression3);
InterpretedExpression interpreter4 = interpreter(expression4);
InterpretedExpression interpreter5 = interpreter(expression5);
InterpretedExpression interpreter6 = interpreter(expression6);
// Then:
assertThat(interpreter1.evaluate(make(8, new BigDecimal("3.4"))), is(true));
assertThat(interpreter1.evaluate(make(8, new BigDecimal("1.1"))), is(false));
assertThat(interpreter2.evaluate(make(8, new BigDecimal("4.9"))), is(true));
assertThat(interpreter2.evaluate(make(8, new BigDecimal("5.2"))), is(false));
assertThat(interpreter3.evaluate(make(8, new BigDecimal("10.4"))), is(true));
assertThat(interpreter3.evaluate(make(8, new BigDecimal("10.5"))), is(false));
assertThat(interpreter4.evaluate(make(8, new BigDecimal("6.5"))), is(true));
assertThat(interpreter4.evaluate(make(8, new BigDecimal("4.5"))), is(false));
assertThat(interpreter5.evaluate(make(8, new BigDecimal("5.5"))), is(true));
assertThat(interpreter5.evaluate(make(8, new BigDecimal("7.5"))), is(false));
assertThat(interpreter6.evaluate(make(8, new BigDecimal("7"))), is(true));
assertThat(interpreter6.evaluate(make(8, new BigDecimal("19.567"))), is(false));
}
use of io.confluent.ksql.execution.expression.tree.DecimalLiteral in project ksql by confluentinc.
the class InterpretedExpressionTest method shouldEvaluateArithmetic.
@Test
public void shouldEvaluateArithmetic() {
// Given:
final Expression expression1 = new ArithmeticBinaryExpression(Operator.ADD, new IntegerLiteral(1), new IntegerLiteral(2));
final Expression expression2 = new ArithmeticBinaryExpression(Operator.ADD, new IntegerLiteral(1), new LongLiteral(4));
final Expression expression3 = new ArithmeticBinaryExpression(Operator.ADD, new DoubleLiteral(5.5), new LongLiteral(4));
final Expression expression4 = new ArithmeticBinaryExpression(Operator.MULTIPLY, new IntegerLiteral(5), new LongLiteral(4));
final Expression expression5 = new ArithmeticBinaryExpression(Operator.DIVIDE, new LongLiteral(18), new LongLiteral(3));
final Expression expression6 = new ArithmeticBinaryExpression(Operator.MODULUS, new LongLiteral(20), new LongLiteral(3));
final Expression expression7 = new ArithmeticBinaryExpression(Operator.ADD, new DecimalLiteral(new BigDecimal("12.5").setScale(2)), new DecimalLiteral(new BigDecimal("1.25").setScale(2)));
final Expression expression8 = new ArithmeticBinaryExpression(Operator.ADD, new DecimalLiteral(new BigDecimal("12.5").setScale(2)), new DoubleLiteral(2.0d));
// When:
InterpretedExpression interpreter1 = interpreter(expression1);
InterpretedExpression interpreter2 = interpreter(expression2);
InterpretedExpression interpreter3 = interpreter(expression3);
InterpretedExpression interpreter4 = interpreter(expression4);
InterpretedExpression interpreter5 = interpreter(expression5);
InterpretedExpression interpreter6 = interpreter(expression6);
InterpretedExpression interpreter7 = interpreter(expression7);
InterpretedExpression interpreter8 = interpreter(expression8);
// Then:
assertThat(interpreter1.evaluate(ROW), is(3));
assertThat(interpreter2.evaluate(ROW), is(5L));
assertThat(interpreter3.evaluate(ROW), is(9.5d));
assertThat(interpreter4.evaluate(ROW), is(20L));
assertThat(interpreter5.evaluate(ROW), is(6L));
assertThat(interpreter6.evaluate(ROW), is(2L));
assertThat(interpreter7.evaluate(ROW), is(BigDecimal.valueOf(13.75).setScale(2)));
assertThat(interpreter8.evaluate(ROW), is(14.5d));
}
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