150 lines
4.9 KiB
SQL
150 lines
4.9 KiB
SQL
# name: test/sql/join/semianti/right_anti.test
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# description: Test positional joins
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# group: [semianti]
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statement ok
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CREATE TABLE left_table (a INTEGER, b INTEGER, c INTEGER);
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statement ok
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INSERT INTO left_table VALUES (42, 1, 1), (43, 1, 1), (42, 1, 1), (41, 1, 1), (41, 2, 2), (41, 7, 7);
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statement ok
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CREATE TABLE right_table (a INTEGER, b INTEGER);
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# insert 2x values into right table. This means it will be forced to be the probe side
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statement ok
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INSERT INTO right_table select 41, range as b from range(375);
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query II
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EXPLAIN ANALYZE SELECT * FROM left_table ANTI JOIN right_table ON left_table.a = right_table.a;
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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# still flips with filter
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query II
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explain analyze SELECT * FROM left_table ANTI JOIN right_table ON left_table.a = right_table.a WHERE a > 5;
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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# still flips with equality condition on tuples
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query II
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explain analyze SELECT * FROM left_table ANTI JOIN right_table ON ([left_table.a, left_table.b] = [right_table.a, right_table.b]);
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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# right table can be a subquery, but using equality we still flip
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query II
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explain analyze SELECT * FROM left_table ANTI JOIN (SELECT a as foo from right_table where b > 5) buzz ON left_table.a = buzz.foo
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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statement ok
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INSERT INTO left_table VALUES (43, 1, 5), (43, 1, 5), (43, 1, 5), (43, 1, 5);
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query I
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CREATE TABLE other (a INTEGER, b INTEGER);
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statement ok
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INSERT INTO other VALUES (42, 1), (43, 1);
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# Still flip on intermediate table that is joined
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query II
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EXPLAIN ANALYZE SELECT * FROM left_table
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ANTI JOIN (select right_table.a FROM right_table JOIN other ON (other.a = right_table.a)) joined_right_table
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ON left_table.a = joined_right_table.a;
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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statement ok
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DELETE FROM left_table where c=5;
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# USING COLUMNS also works,
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query II
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EXPLAIN ANALYZE SELECT * FROM left_table ANTI JOIN right_table USING (a);
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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# natural anti join works
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query II
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explain analyze SELECT * FROM left_table NATURAL ANTI JOIN right_table;
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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query II
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EXPLAIN ANALYZE SELECT * FROM left_table
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NATURAL ANTI JOIN (select right_table.a FROM right_table JOIN other ON (other.a = right_table.a)) joined_right_table;
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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# right_table.a and left_table.a have the value 42
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# only left_table.a has the value 43
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# test flip on inequalities as well
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query II
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EXPLAIN ANALYZE SELECT * FROM left_table ANTI JOIN right_table ON (left_table.a <> right_table.a) ORDER BY a, c;
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----
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analyzed_plan <!REGEX>:.*RIGHT_ANTI.*
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# range joins do *not* flip
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query II
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EXPLAIN ANALYZE SELECT * FROM left_table ANTI JOIN right_table ON (left_table.a > right_table.a);
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----
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analyzed_plan <!REGEX>:.*RIGHT_ANTI.*
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# complex condition resulting in an any join DOES *NOT* flip
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query II
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explain analyze SELECT * FROM left_table ANTI JOIN right_table ON (left_table.a + right_table.a = 85 OR left_table.a + right_table.b = 84) order by left_table.a, left_table.c;
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----
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analyzed_plan <!REGEX>:.*RIGHT_ANTI.*
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statement ok
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INSERT INTO right_table VALUES (1, 42), (1, 42);
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# Insert more values so that the scan side in the cross product is the right hand side
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statement ok
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INSERT INTO left_table VALUES (42, 1, 5), (42, 1, 5), (42, 1, 5), (2000, 20000, 200000);
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# complex condition resulting in an any join does *NOT* flip
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query II
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explain analyze SELECT * FROM left_table ANTI JOIN right_table ON (left_table.a + right_table.a = 85 OR left_table.a + right_table.b = 84) order by left_table.a, left_table.c;
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----
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analyzed_plan <!REGEX>:.*RIGHT_ANTI.*
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# correlated subqueries can flip
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query II
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explain analyze SELECT a as outer_a, (SELECT MAX(right_table.b) FROM right_table where right_table.a != outer_a) right_table_b FROM left_table ANTI JOIN right_table ON (left_table.a = right_table.a) Order by outer_a, right_table_b;
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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statement ok
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INSERT INTO right_table VALUES (1, 20);
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# correlated subqueries
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query II
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explain analyze SELECT a as outer_a, (SELECT MAX(b) FROM right_table where right_table.a != outer_a) right_table_b FROM left_table ANTI JOIN right_table ON (left_table.a = right_table.a) Order by outer_a, right_table_b;
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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statement ok
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SET scalar_subquery_error_on_multiple_rows=false
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query II
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explain analyze SELECT a as outer_a, (SELECT right_table.b FROM right_table where right_table.a != outer_a) right_table_b FROM left_table ANTI JOIN right_table ON (left_table.a = right_table.a) Order by outer_a, right_table_b;
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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statement ok
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INSERT INTO right_table VALUES (1, 20);
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# correlated subqueries
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query II
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explain analyze SELECT a as outer_a, (SELECT b FROM right_table where right_table.a != outer_a) right_table_b FROM left_table ANTI JOIN right_table ON (left_table.a = right_table.a) Order by outer_a, right_table_b;
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----
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analyzed_plan <REGEX>:.*RIGHT_ANTI.*
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