import type { CompiledQuery } from '../query-compiler/compiled-query.js';
import { type JoinCallbackExpression, type JoinReferenceExpression } from '../parser/join-parser.js';
import { type TableExpression } from '../parser/table-parser.js';
import { type SelectExpression, type Selection, type AllSelection, type SelectCallback, type CallbackSelection } from '../parser/select-parser.js';
import { type ReferenceExpression } from '../parser/reference-parser.js';
import { SelectQueryNode } from '../operation-node/select-query-node.js';
import { QueryNode } from '../operation-node/query-node.js';
import type { DrainOuterGeneric, NarrowPartial, Nullable, ShallowRecord, Simplify, SimplifySingleResult, SqlBool } from '../util/type-utils.js';
import { type DirectedOrderByStringReference, type OrderByExpression, type OrderByModifiers } from '../parser/order-by-parser.js';
import type { Compilable } from '../util/compilable.js';
import type { QueryExecutor } from '../query-executor/query-executor.js';
import type { QueryId } from '../util/query-id.js';
import { type GroupByArg } from '../parser/group-by-parser.js';
import type { KyselyPlugin } from '../plugin/kysely-plugin.js';
import type { WhereInterface } from './where-interface.js';
import { type NoResultErrorConstructor } from './no-result-error.js';
import type { HavingInterface } from './having-interface.js';
import type { Explainable, ExplainFormat } from '../util/explainable.js';
import { type SetOperandExpression } from '../parser/set-operation-parser.js';
import type { AliasedExpression, Expression } from '../expression/expression.js';
import { type ComparisonOperatorExpression, type OperandValueExpressionOrList } from '../parser/binary-operation-parser.js';
import type { KyselyTypeError } from '../util/type-error.js';
import type { Selectable } from '../util/column-type.js';
import type { Streamable } from '../util/streamable.js';
import type { ExpressionOrFactory } from '../parser/expression-parser.js';
import { ExpressionWrapper } from '../expression/expression-wrapper.js';
import type { SelectQueryBuilderExpression } from './select-query-builder-expression.js';
import { type ValueExpression } from '../parser/value-parser.js';
import type { FetchModifier } from '../operation-node/fetch-node.js';
import type { TopModifier } from '../operation-node/top-node.js';
import type { OrderByInterface } from './order-by-interface.js';
export interface SelectQueryBuilder<DB, TB extends keyof DB, O> extends WhereInterface<DB, TB>, HavingInterface<DB, TB>, OrderByInterface<DB, TB, O>, SelectQueryBuilderExpression<O>, Compilable<O>, Explainable, Streamable<O> {
    /**
     * Adds a `where` expression to the query.
     *
     * Calling this method multiple times will combine the expressions using `and`.
     *
     * Also see {@link whereRef}
     *
     * ### Examples
     *
     * <!-- siteExample("where", "Simple where clause", 10) -->
     *
     * `where` method calls are combined with `AND`:
     *
     * ```ts
     * const person = await db
     *   .selectFrom('person')
     *   .selectAll()
     *   .where('first_name', '=', 'Jennifer')
     *   .where('age', '>', 40)
     *   .executeTakeFirst()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select * from "person" where "first_name" = $1 and "age" > $2
     * ```
     *
     * Operator can be any supported operator or if the typings don't support it
     * you can always use:
     *
     * ```ts
     * import { sql } from 'kysely'
     *
     * sql`your operator`
     * ```
     *
     * <!-- siteExample("where", "Where in", 20) -->
     *
     * Find multiple items using a list of identifiers:
     *
     * ```ts
     * const persons = await db
     *   .selectFrom('person')
     *   .selectAll()
     *   .where('id', 'in', [1, 2, 3])
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select * from "person" where "id" in ($1, $2, $3)
     * ```
     *
     * <!-- siteExample("where", "Object filter", 30) -->
     *
     * You can use the `and` function to create a simple equality
     * filter using an object
     *
     * ```ts
     * const persons = await db
     *   .selectFrom('person')
     *   .selectAll()
     *   .where((eb) => eb.and({
     *     first_name: 'Jennifer',
     *     last_name: eb.ref('first_name')
     *   }))
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select *
     * from "person"
     * where (
     *   "first_name" = $1
     *   and "last_name" = "first_name"
     * )
     * ```
     *
     * <!-- siteExample("where", "OR where", 40) -->
     *
     * To combine conditions using `OR`, you can use the expression builder.
     * There are two ways to create `OR` expressions. Both are shown in this
     * example:
     *
     * ```ts
     * const persons = await db
     *   .selectFrom('person')
     *   .selectAll()
     *   // 1. Using the `or` method on the expression builder:
     *   .where((eb) => eb.or([
     *     eb('first_name', '=', 'Jennifer'),
     *     eb('first_name', '=', 'Sylvester')
     *   ]))
     *   // 2. Chaining expressions using the `or` method on the
     *   // created expressions:
     *   .where((eb) =>
     *     eb('last_name', '=', 'Aniston').or('last_name', '=', 'Stallone')
     *   )
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select *
     * from "person"
     * where (
     *   ("first_name" = $1 or "first_name" = $2)
     *   and
     *   ("last_name" = $3 or "last_name" = $4)
     * )
     * ```
     *
     * <!-- siteExample("where", "Conditional where calls", 50) -->
     *
     * You can add expressions conditionally like this:
     *
     * ```ts
     * import { Expression, SqlBool } from 'kysely'
     *
     * const firstName: string | undefined = 'Jennifer'
     * const lastName: string | undefined = 'Aniston'
     * const under18 = true
     * const over60 = true
     *
     * let query = db
     *   .selectFrom('person')
     *   .selectAll()
     *
     * if (firstName) {
     *   // The query builder is immutable. Remember to reassign
     *   // the result back to the query variable.
     *   query = query.where('first_name', '=', firstName)
     * }
     *
     * if (lastName) {
     *   query = query.where('last_name', '=', lastName)
     * }
     *
     * if (under18 || over60) {
     *   // Conditional OR expressions can be added like this.
     *   query = query.where((eb) => {
     *     const ors: Expression<SqlBool>[] = []
     *
     *     if (under18) {
     *       ors.push(eb('age', '<', 18))
     *     }
     *
     *     if (over60) {
     *       ors.push(eb('age', '>', 60))
     *     }
     *
     *     return eb.or(ors)
     *   })
     * }
     *
     * const persons = await query.execute()
     * ```
     *
     * Both the first and third argument can also be arbitrary expressions like
     * subqueries. An expression can defined by passing a function and calling
     * the methods of the {@link ExpressionBuilder} passed to the callback:
     *
     * ```ts
     * const persons = await db
     *   .selectFrom('person')
     *   .selectAll()
     *   .where(
     *     (qb) => qb.selectFrom('pet')
     *       .select('pet.name')
     *       .whereRef('pet.owner_id', '=', 'person.id')
     *       .limit(1),
     *     '=',
     *     'Fluffy'
     *   )
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select *
     * from "person"
     * where (
     *   select "pet"."name"
     *   from "pet"
     *   where "pet"."owner_id" = "person"."id"
     *   limit $1
     * ) = $2
     * ```
     *
     * A `where in` query can be built by using the `in` operator and an array
     * of values. The values in the array can also be expressions:
     *
     * ```ts
     * const persons = await db
     *   .selectFrom('person')
     *   .selectAll()
     *   .where('person.id', 'in', [100, 200, 300])
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select * from "person" where "id" in ($1, $2, $3)
     * ```
     *
     * <!-- siteExample("where", "Complex where clause", 60) -->
     *
     * For complex `where` expressions you can pass in a single callback and
     * use the `ExpressionBuilder` to build your expression:
     *
     * ```ts
     * const firstName = 'Jennifer'
     * const maxAge = 60
     *
     * const persons = await db
     *   .selectFrom('person')
     *   .selectAll('person')
     *   .where(({ eb, or, and, not, exists, selectFrom }) => and([
     *     or([
     *       eb('first_name', '=', firstName),
     *       eb('age', '<', maxAge)
     *     ]),
     *     not(exists(
     *       selectFrom('pet')
     *         .select('pet.id')
     *         .whereRef('pet.owner_id', '=', 'person.id')
     *     ))
     *   ]))
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person".*
     * from "person"
     * where (
     *   (
     *     "first_name" = $1
     *     or "age" < $2
     *   )
     *   and not exists (
     *     select "pet"."id" from "pet" where "pet"."owner_id" = "person"."id"
     *   )
     * )
     * ```
     *
     * If everything else fails, you can always use the {@link sql} tag
     * as any of the arguments, including the operator:
     *
     * ```ts
     * import { sql } from 'kysely'
     *
     * const persons = await db
     *   .selectFrom('person')
     *   .selectAll()
     *   .where(
     *     sql<string>`coalesce(first_name, last_name)`,
     *     'like',
     *     '%' + name + '%',
     *   )
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select * from "person"
     * where coalesce(first_name, last_name) like $1
     * ```
     *
     * In all examples above the columns were known at compile time
     * (except for the raw {@link sql} expressions). By default kysely only
     * allows you to refer to columns that exist in the database **and**
     * can be referred to in the current query and context.
     *
     * Sometimes you may want to refer to columns that come from the user
     * input and thus are not available at compile time.
     *
     * You have two options, the {@link sql} tag or `db.dynamic`. The example below
     * uses both:
     *
     * ```ts
     * import { sql } from 'kysely'
     * const { ref } = db.dynamic
     *
     * const columnFromUserInput: string = 'id'
     *
     * const persons = await db
     *   .selectFrom('person')
     *   .selectAll()
     *   .where(ref(columnFromUserInput), '=', 1)
     *   .where(sql.id(columnFromUserInput), '=', 2)
     *   .execute()
     * ```
     */
    where<RE extends ReferenceExpression<DB, TB>, VE extends OperandValueExpressionOrList<DB, TB, RE>>(lhs: RE, op: ComparisonOperatorExpression, rhs: VE): SelectQueryBuilder<DB, TB, O>;
    where<E extends ExpressionOrFactory<DB, TB, SqlBool>>(expression: E): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds a `where` clause where both sides of the operator are references
     * to columns.
     *
     * The normal `where` method treats the right hand side argument as a
     * value by default. `whereRef` treats it as a column reference. This method is
     * expecially useful with joins and correlated subqueries.
     *
     * ### Examples
     *
     * Usage with a join:
     *
     * ```ts
     * db.selectFrom(['person', 'pet'])
     *   .selectAll()
     *   .whereRef('person.first_name', '=', 'pet.name')
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select * from "person", "pet" where "person"."first_name" = "pet"."name"
     * ```
     *
     * Usage in a subquery:
     *
     * ```ts
     * const persons = await db
     *   .selectFrom('person')
     *   .selectAll('person')
     *   .select((eb) => eb
     *     .selectFrom('pet')
     *     .select('name')
     *     .whereRef('pet.owner_id', '=', 'person.id')
     *     .limit(1)
     *     .as('pet_name')
     *   )
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person".*, (
     *   select "name"
     *   from "pet"
     *   where "pet"."owner_id" = "person"."id"
     *   limit $1
     * ) as "pet_name"
     * from "person"
     */
    whereRef<LRE extends ReferenceExpression<DB, TB>, RRE extends ReferenceExpression<DB, TB>>(lhs: LRE, op: ComparisonOperatorExpression, rhs: RRE): SelectQueryBuilder<DB, TB, O>;
    /**
     * Just like {@link WhereInterface.where | where} but adds a `having` statement
     * instead of a `where` statement.
     */
    having<RE extends ReferenceExpression<DB, TB>, VE extends OperandValueExpressionOrList<DB, TB, RE>>(lhs: RE, op: ComparisonOperatorExpression, rhs: VE): SelectQueryBuilder<DB, TB, O>;
    having<E extends ExpressionOrFactory<DB, TB, SqlBool>>(expression: E): SelectQueryBuilder<DB, TB, O>;
    /**
     * Just like {@link WhereInterface.whereRef | whereRef} but adds a `having` statement
     * instead of a `where` statement.
     */
    havingRef<LRE extends ReferenceExpression<DB, TB>, RRE extends ReferenceExpression<DB, TB>>(lhs: LRE, op: ComparisonOperatorExpression, rhs: RRE): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds a select statement to the query.
     *
     * When a column (or any expression) is selected, Kysely adds its type to the return
     * type of the query. Kysely is smart enough to parse the selection names and types
     * from aliased columns, subqueries, raw expressions etc.
     *
     * Kysely only allows you to select columns and expressions that exist and would
     * produce valid SQL. However, Kysely is not perfect and there may be cases where
     * the type inference doesn't work and you need to override it. You can always
     * use the {@link Kysely.dynamic | dynamic} module and the {@link sql} tag
     * to override the types.
     *
     * Select calls are additive. Calling `select('id').select('first_name')` is the
     * same as calling `select(['id', 'first_name'])`.
     *
     * To select all columns of the query or specific tables see the
     * {@link selectAll} method.
     *
     * See the {@link $if} method if you are looking for a way to add selections
     * based on a runtime condition.
     *
     * ### Examples
     *
     * <!-- siteExample("select", "A single column", 10) -->
     *
     * Select a single column:
     *
     * ```ts
     * const persons = await db
     *   .selectFrom('person')
     *   .select('id')
     *   .where('first_name', '=', 'Arnold')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id" from "person" where "first_name" = $1
     * ```
     *
     * <!-- siteExample("select", "Column with a table", 20) -->
     *
     * Select a single column and specify a table:
     *
     * ```ts
     * const persons = await db
     *   .selectFrom(['person', 'pet'])
     *   .select('person.id')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person"."id" from "person", "pet"
     * ```
     *
     * <!-- siteExample("select", "Multiple columns", 30) -->
     *
     * Select multiple columns:
     *
     * ```ts
     * const persons = await db
     *   .selectFrom('person')
     *   .select(['person.id', 'first_name'])
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person"."id", "first_name" from "person"
     * ```
     *
     * <!-- siteExample("select", "Aliases", 40) -->
     *
     * You can give an alias for selections and tables by appending `as the_alias` to the name:
     *
     * ```ts
     * const persons = await db
     *   .selectFrom('person as p')
     *   .select([
     *     'first_name as fn',
     *     'p.last_name as ln'
     *   ])
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select
     *   "first_name" as "fn",
     *   "p"."last_name" as "ln"
     * from "person" as "p"
     * ```
     *
     * <!-- siteExample("select", "Complex selections", 50) -->
     *
     * You can select arbitrary expression including subqueries and raw sql snippets.
     * When you do that, you need to give a name for the selections using the `as` method:
     *
     * ```ts
     * import { sql } from 'kysely'
     *
     * const persons = await db.selectFrom('person')
     *   .select(({ eb, selectFrom, or, val, lit }) => [
     *     // Select a correlated subquery
     *     selectFrom('pet')
     *       .whereRef('person.id', '=', 'pet.owner_id')
     *       .select('pet.name')
     *       .orderBy('pet.name')
     *       .limit(1)
     *       .as('first_pet_name'),
     *
     *     // Build and select an expression using
     *     // the expression builder
     *     or([
     *       eb('first_name', '=', 'Jennifer'),
     *       eb('first_name', '=', 'Arnold')
     *     ]).as('is_jennifer_or_arnold'),
     *
     *     // Select a raw sql expression
     *     sql<string>`concat(first_name, ' ', last_name)`.as('full_name'),
     *
     *     // Select a static string value
     *     val('Some value').as('string_value'),
     *
     *     // Select a literal value
     *     lit(42).as('literal_value'),
     *   ])
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select
     *   (
     *     select "pet"."name"
     *     from "pet"
     *     where "person"."id" = "pet"."owner_id"
     *     order by "pet"."name"
     *     limit $1
     *   ) as "pet_name",
     *   ("first_name" = $2 or "first_name" = $3) as "jennifer_or_arnold",
     *   concat(first_name, ' ', last_name) as "full_name",
     *   $4 as "string_value",
     *   42 as "literal_value"
     * from "person"
     * ```
     *
     * In case you use the {@link sql} tag you need to specify the type of the expression
     * (in this example `string`).
     *
     *  <!-- siteExample("select", "Not null", 51) -->
     *
     * Sometimes you can be sure something's not null, but Kysely isn't able to infer
     * it. For example calling `where('last_name', 'is not', null)` doesn't make
     * `last_name` not null in the result type, but unless you have other where statements
     * you can be sure it's never null.
     *
     * Kysely has a couple of helpers for dealing with these cases: `$notNull()` and `$narrowType`.
     * Both are used in the following example:
     *
     * ```ts
     * import { NotNull } from 'kysely'
     * import { jsonObjectFrom } from 'kysely/helpers/postgres'
     *
     * const persons = db
     *   .selectFrom('person')
     *   .select((eb) => [
     *     'last_name',
     *      // Let's assume we know the person has at least one
     *      // pet. We can use the `.$notNull()` method to make
     *      // the expression not null. You could just as well
     *      // add `pet` to the `$narrowType` call below.
     *      jsonObjectFrom(
     *        eb.selectFrom('pet')
     *          .selectAll()
     *          .limit(1)
     *          .whereRef('person.id', '=', 'pet.owner_id')
     *      ).$notNull().as('pet')
     *   ])
     *   .where('last_name', 'is not', null)
     *   // $narrowType can be used to narrow the output type.
     *   // The special `NotNull` type can be used to make a
     *   // selection not null. You could add `pet: NotNull`
     *   // here and omit the `$notNull()` call on it.
     *   // Use whichever way you prefer.
     *   .$narrowType<{ last_name: NotNull }>()
     *   .execute()
     * ```
     *
     * All the examples above assume you know the column names at compile time.
     * While it's better to build your code like that (that way you also know
     * the types) sometimes it's not possible or you just prefer to write more
     * dynamic code.
     * <br><br>
     * In this example, we use the `dynamic` module's methods to add selections
     * dynamically:
     *
     * ```ts
     * const { ref } = db.dynamic
     *
     * // Some column name provided by the user. Value not known at compile time.
     * const columnFromUserInput: string = 'first_name';
     *
     * // A type that lists all possible values `columnFromUserInput` can have.
     * // You can use `keyof Person` if any column of an interface is allowed.
     * type PossibleColumns = 'last_name' | 'first_name' | 'birthdate'
     *
     * const people = await db
     *   .selectFrom('person')
     *   .select([
     *     ref<PossibleColumns>(columnFromUserInput),
     *     'id'
     *   ])
     *   .execute()
     *
     * // The resulting type contains all `PossibleColumns` as optional fields
     * // because we cannot know which field was actually selected before
     * // running the code.
     * const lastName: string | null | undefined = people[0].last_name
     * const firstName: string | undefined = people[0].first_name
     * const birthDate: Date | null | undefined = people[0].birthdate
     *
     * // The result type also contains the compile time selection `id`.
     * people[0].id
     * ```
     */
    select<SE extends SelectExpression<DB, TB>>(selections: ReadonlyArray<SE>): SelectQueryBuilder<DB, TB, O & Selection<DB, TB, SE>>;
    select<CB extends SelectCallback<DB, TB>>(callback: CB): SelectQueryBuilder<DB, TB, O & CallbackSelection<DB, TB, CB>>;
    select<SE extends SelectExpression<DB, TB>>(selection: SE): SelectQueryBuilder<DB, TB, O & Selection<DB, TB, SE>>;
    /**
     * Adds `distinct on` expressions to the select clause.
     *
     * ### Examples
     *
     * <!-- siteExample("select", "Distinct on", 80) -->
     *
     * ```ts
     * const persons = await db.selectFrom('person')
     *   .innerJoin('pet', 'pet.owner_id', 'person.id')
     *   .where('pet.name', '=', 'Doggo')
     *   .distinctOn('person.id')
     *   .selectAll('person')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select distinct on ("person"."id") "person".*
     * from "person"
     * inner join "pet" on "pet"."owner_id" = "person"."id"
     * where "pet"."name" = $1
     * ```
     */
    distinctOn<RE extends ReferenceExpression<DB, TB>>(selections: ReadonlyArray<RE>): SelectQueryBuilder<DB, TB, O>;
    distinctOn<RE extends ReferenceExpression<DB, TB>>(selection: RE): SelectQueryBuilder<DB, TB, O>;
    /**
     * This can be used to add any additional SQL to the front of the query __after__ the `select` keyword.
     *
     * ### Examples
     *
     * ```ts
     * import { sql } from 'kysely'
     *
     * await db.selectFrom('person')
     *   .modifyFront(sql`sql_no_cache`)
     *   .select('first_name')
     *   .execute()
     * ```
     *
     * The generated SQL (MySQL):
     *
     * ```sql
     * select sql_no_cache `first_name`
     * from `person`
     * ```
     */
    modifyFront(modifier: Expression<any>): SelectQueryBuilder<DB, TB, O>;
    /**
     * This can be used to add any additional SQL to the end of the query.
     *
     * Also see {@link forUpdate}, {@link forShare}, {@link forKeyShare}, {@link forNoKeyUpdate}
     * {@link skipLocked} and  {@link noWait}.
     *
     * ### Examples
     *
     * ```ts
     * import { sql } from 'kysely'
     *
     * await db.selectFrom('person')
     *   .select('first_name')
     *   .modifyEnd(sql`for update`)
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "first_name"
     * from "person"
     * for update
     * ```
     */
    modifyEnd(modifier: Expression<any>): SelectQueryBuilder<DB, TB, O>;
    /**
     * Makes the selection distinct.
     *
     * ### Examples
     *
     * <!-- siteExample("select", "Distinct", 70) -->
     *
     * ```ts
     * const persons = await db.selectFrom('person')
     *   .select('first_name')
     *   .distinct()
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select distinct "first_name" from "person"
     * ```
     */
    distinct(): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds the `for update` modifier to a select query on supported databases.
     */
    forUpdate(of?: TableOrList<TB>): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds the `for share` modifier to a select query on supported databases.
     */
    forShare(of?: TableOrList<TB>): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds the `for key share` modifier to a select query on supported databases.
     */
    forKeyShare(of?: TableOrList<TB>): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds the `for no key update` modifier to a select query on supported databases.
     */
    forNoKeyUpdate(of?: TableOrList<TB>): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds the `skip locked` modifier to a select query on supported databases.
     */
    skipLocked(): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds the `nowait` modifier to a select query on supported databases.
     */
    noWait(): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds a `select *` or `select table.*` clause to the query.
     *
     * ### Examples
     *
     * <!-- siteExample("select", "All columns", 90) -->
     *
     * The `selectAll` method generates `SELECT *`:
     *
     * ```ts
     * const persons = await db
     *   .selectFrom('person')
     *   .selectAll()
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select * from "person"
     * ```
     *
     * <!-- siteExample("select", "All columns of a table", 100) -->
     *
     * Select all columns of a table:
     *
     * ```ts
     * const persons = await db
     *   .selectFrom('person')
     *   .selectAll('person')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person".* from "person"
     * ```
     *
     * Select all columns of multiple tables:
     *
     * ```ts
     * const personsPets = await db
     *   .selectFrom(['person', 'pet'])
     *   .selectAll(['person', 'pet'])
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person".*, "pet".* from "person", "pet"
     * ```
     */
    selectAll<T extends TB>(table: ReadonlyArray<T>): SelectQueryBuilder<DB, TB, O & AllSelection<DB, T>>;
    selectAll<T extends TB>(table: T): SelectQueryBuilder<DB, TB, O & Selectable<DB[T]>>;
    selectAll(): SelectQueryBuilder<DB, TB, O & AllSelection<DB, TB>>;
    /**
     * Joins another table to the query using an `inner join`.
     *
     * ### Examples
     *
     * <!-- siteExample("join", "Simple inner join", 10) -->
     *
     * Simple `inner join`s can be done by providing a table name and two columns to join:
     *
     * ```ts
     * const result = await db
     *   .selectFrom('person')
     *   .innerJoin('pet', 'pet.owner_id', 'person.id')
     *   // `select` needs to come after the call to `innerJoin` so
     *   // that you can select from the joined table.
     *   .select(['person.id', 'pet.name as pet_name'])
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person"."id", "pet"."name" as "pet_name"
     * from "person"
     * inner join "pet"
     * on "pet"."owner_id" = "person"."id"
     * ```
     *
     * <!-- siteExample("join", "Aliased inner join", 20) -->
     *
     * You can give an alias for the joined table like this:
     *
     * ```ts
     * await db.selectFrom('person')
     *   .innerJoin('pet as p', 'p.owner_id', 'person.id')
     *   .where('p.name', '=', 'Doggo')
     *   .selectAll()
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select *
     * from "person"
     * inner join "pet" as "p"
     * on "p"."owner_id" = "person"."id"
     * where "p".name" = $1
     * ```
     *
     * <!-- siteExample("join", "Complex join", 30) -->
     *
     * You can provide a function as the second argument to get a join
     * builder for creating more complex joins. The join builder has a
     * bunch of `on*` methods for building the `on` clause of the join.
     * There's basically an equivalent for every `where` method
     * (`on`, `onRef` etc.).
     *
     * You can do all the same things with the
     * `on` method that you can with the corresponding `where` method (like [OR expressions for example](https://kysely.dev/docs/examples/WHERE/or-where)).
     * See the `where` method documentation for more examples.
     *
     * ```ts
     * await db.selectFrom('person')
     *   .innerJoin(
     *     'pet',
     *     (join) => join
     *       .onRef('pet.owner_id', '=', 'person.id')
     *       .on('pet.name', '=', 'Doggo')
     *       .on((eb) => eb.or([
     *         eb('person.age', '>', 18),
     *         eb('person.age', '<', 100)
     *       ]))
     *   )
     *   .selectAll()
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select *
     * from "person"
     * inner join "pet"
     * on "pet"."owner_id" = "person"."id"
     * and "pet"."name" = $1
     * and (
     *   "person"."age" > $2
     *   OR "person"."age" < $3
     * )
     * ```
     *
     * <!-- siteExample("join", "Subquery join", 40) -->
     *
     * You can join a subquery by providing two callbacks:
     *
     * ```ts
     * const result = await db.selectFrom('person')
     *   .innerJoin(
     *     (eb) => eb
     *       .selectFrom('pet')
     *       .select(['owner_id as owner', 'name'])
     *       .where('name', '=', 'Doggo')
     *       .as('doggos'),
     *     (join) => join
     *       .onRef('doggos.owner', '=', 'person.id'),
     *   )
     *   .selectAll('doggos')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "doggos".*
     * from "person"
     * inner join (
     *   select "owner_id" as "owner", "name"
     *   from "pet"
     *   where "name" = $1
     * ) as "doggos"
     * on "doggos"."owner" = "person"."id"
     * ```
     */
    innerJoin<TE extends TableExpression<DB, TB>, K1 extends JoinReferenceExpression<DB, TB, TE>, K2 extends JoinReferenceExpression<DB, TB, TE>>(table: TE, k1: K1, k2: K2): SelectQueryBuilderWithInnerJoin<DB, TB, O, TE>;
    innerJoin<TE extends TableExpression<DB, TB>, FN extends JoinCallbackExpression<DB, TB, TE>>(table: TE, callback: FN): SelectQueryBuilderWithInnerJoin<DB, TB, O, TE>;
    /**
     * Just like {@link innerJoin} but adds a `left join` instead of an `inner join`.
     */
    leftJoin<TE extends TableExpression<DB, TB>, K1 extends JoinReferenceExpression<DB, TB, TE>, K2 extends JoinReferenceExpression<DB, TB, TE>>(table: TE, k1: K1, k2: K2): SelectQueryBuilderWithLeftJoin<DB, TB, O, TE>;
    leftJoin<TE extends TableExpression<DB, TB>, FN extends JoinCallbackExpression<DB, TB, TE>>(table: TE, callback: FN): SelectQueryBuilderWithLeftJoin<DB, TB, O, TE>;
    /**
     * Just like {@link innerJoin} but adds a `right join` instead of an `inner join`.
     */
    rightJoin<TE extends TableExpression<DB, TB>, K1 extends JoinReferenceExpression<DB, TB, TE>, K2 extends JoinReferenceExpression<DB, TB, TE>>(table: TE, k1: K1, k2: K2): SelectQueryBuilderWithRightJoin<DB, TB, O, TE>;
    rightJoin<TE extends TableExpression<DB, TB>, FN extends JoinCallbackExpression<DB, TB, TE>>(table: TE, callback: FN): SelectQueryBuilderWithRightJoin<DB, TB, O, TE>;
    /**
     * Just like {@link innerJoin} but adds a `full join` instead of an `inner join`.
     *
     * This is only supported by some dialects like PostgreSQL, MS SQL Server and SQLite.
     */
    fullJoin<TE extends TableExpression<DB, TB>, K1 extends JoinReferenceExpression<DB, TB, TE>, K2 extends JoinReferenceExpression<DB, TB, TE>>(table: TE, k1: K1, k2: K2): SelectQueryBuilderWithFullJoin<DB, TB, O, TE>;
    fullJoin<TE extends TableExpression<DB, TB>, FN extends JoinCallbackExpression<DB, TB, TE>>(table: TE, callback: FN): SelectQueryBuilderWithFullJoin<DB, TB, O, TE>;
    /**
     * Just like {@link innerJoin} but adds a `cross join` instead of an `inner join`.
     */
    crossJoin<TE extends TableExpression<DB, TB>>(table: TE): SelectQueryBuilderWithInnerJoin<DB, TB, O, TE>;
    /**
     * Just like {@link innerJoin} but adds a lateral join instead of an inner join.
     *
     * This is only supported by some dialects like PostgreSQL and MySQL.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .innerJoinLateral(
     *     (eb) =>
     *       eb.selectFrom('pet')
     *         .select('name')
     *         .whereRef('pet.owner_id', '=', 'person.id')
     *         .as('p'),
     *     (join) => join.onTrue()
     *   )
     *   .select(['first_name', 'p.name'])
     *   .orderBy('first_name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person"."first_name", "p"."name"
     * from "person"
     * inner join lateral (
     *   select "name"
     *   from "pet"
     *   where "pet"."owner_id" = "person"."id"
     * ) as "p" on true
     * order by "first_name"
     * ```
     */
    innerJoinLateral<TE extends TableExpression<DB, TB>, K1 extends JoinReferenceExpression<DB, TB, TE>, K2 extends JoinReferenceExpression<DB, TB, TE>>(table: TE, k1: K1, k2: K2): SelectQueryBuilderWithInnerJoin<DB, TB, O, TE>;
    innerJoinLateral<TE extends TableExpression<DB, TB>, FN extends JoinCallbackExpression<DB, TB, TE>>(table: TE, callback: FN): SelectQueryBuilderWithInnerJoin<DB, TB, O, TE>;
    /**
     * Just like {@link innerJoin} but adds a `left join lateral` instead of an `inner join`.
     *
     * This is only supported by some dialects like PostgreSQL and MySQL.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .leftJoinLateral(
     *     (eb) =>
     *       eb.selectFrom('pet')
     *         .select('name')
     *         .whereRef('pet.owner_id', '=', 'person.id')
     *         .as('p'),
     *     (join) => join.onTrue()
     *   )
     *   .select(['first_name', 'p.name'])
     *   .orderBy('first_name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person"."first_name", "p"."name"
     * from "person"
     * left join lateral (
     *   select "name"
     *   from "pet"
     *   where "pet"."owner_id" = "person"."id"
     * ) as "p" on true
     * order by "first_name"
     * ```
     */
    leftJoinLateral<TE extends TableExpression<DB, TB>, K1 extends JoinReferenceExpression<DB, TB, TE>, K2 extends JoinReferenceExpression<DB, TB, TE>>(table: TE, k1: K1, k2: K2): SelectQueryBuilderWithLeftJoin<DB, TB, O, TE>;
    leftJoinLateral<TE extends TableExpression<DB, TB>, FN extends JoinCallbackExpression<DB, TB, TE>>(table: TE, callback: FN): SelectQueryBuilderWithLeftJoin<DB, TB, O, TE>;
    /**
     * Just like {@link innerJoin} but adds a `cross join lateral` instead of an `inner join`.
     *
     * This is only supported by some dialects like PostgreSQL.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .crossJoinLateral(
     *     (eb) =>
     *       eb.selectFrom('pet')
     *         .select('name')
     *         .whereRef('pet.owner_id', '=', 'person.id')
     *         .as('p')
     *   )
     *   .select(['first_name', 'p.name'])
     *   .orderBy('first_name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person"."first_name", "p"."name"
     * from "person"
     * cross join lateral (
     *   select "name"
     *   from "pet"
     *   where "pet"."owner_id" = "person"."id"
     * ) as "p"
     * order by "first_name"
     * ```
     */
    crossJoinLateral<TE extends TableExpression<DB, TB>>(table: TE): SelectQueryBuilderWithInnerJoin<DB, TB, O, TE>;
    /**
     * Joins another table to the query using a `cross apply`.
     *
     * This is only supported by some dialects like MS SQL Server.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .crossApply(
     *     (eb) =>
     *       eb.selectFrom('pet')
     *         .select('name')
     *         .whereRef('pet.owner_id', '=', 'person.id')
     *         .as('p')
     *   )
     *   .select(['first_name', 'p.name'])
     *   .orderBy('first_name')
     *   .execute()
     * ```
     *
     * The generated SQL (MS SQL Server):
     *
     * ```sql
     * select "person"."first_name", "p"."name"
     * from "person"
     * cross apply (
     *   select "name"
     *   from "pet"
     *   where "pet"."owner_id" = "person"."id"
     * ) as "p"
     * order by "first_name"
     * ```
     */
    crossApply<TE extends TableExpression<DB, TB>>(table: TE): SelectQueryBuilderWithInnerJoin<DB, TB, O, TE>;
    /**
     * Just like {@link crossApply} but adds an `outer apply` instead of a `cross apply`.
     *
     * This is only supported by some dialects like MS SQL Server.
     */
    outerApply<TE extends TableExpression<DB, TB>>(table: TE): SelectQueryBuilderWithLeftJoin<DB, TB, O, TE>;
    /**
     * Adds a `group by` clause to the query.
     *
     * ### Examples
     *
     * ```ts
     * import { sql } from 'kysely'
     *
     * await db
     *   .selectFrom('person')
     *   .select([
     *     'first_name',
     *     sql<string>`max(id)`.as('max_id')
     *   ])
     *   .groupBy('first_name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "first_name", max(id)
     * from "person"
     * group by "first_name"
     * ```
     *
     * `groupBy` also accepts an array:
     *
     * ```ts
     * import { sql } from 'kysely'
     *
     * await db
     *   .selectFrom('person')
     *   .select([
     *     'first_name',
     *     'last_name',
     *     sql<string>`max(id)`.as('max_id')
     *   ])
     *   .groupBy([
     *     'first_name',
     *     'last_name'
     *   ])
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "first_name", "last_name", max(id)
     * from "person"
     * group by "first_name", "last_name"
     * ```
     *
     * The group by expressions can also be subqueries or
     * raw sql expressions:
     *
     * ```ts
     * import { sql } from 'kysely'
     *
     * await db
     *   .selectFrom('person')
     *   .select([
     *     'first_name',
     *     'last_name',
     *     sql<string>`max(id)`.as('max_id')
     *   ])
     *   .groupBy([
     *     sql<string>`concat(first_name, last_name)`,
     *     (qb) => qb.selectFrom('pet').select('id').limit(1)
     *   ])
     *   .execute()
     * ```
     *
     * `dynamic.ref` can be used to refer to columns not known at
     * compile time:
     *
     * ```ts
     * async function someQuery(groupBy: string) {
     *   const { ref } = db.dynamic
     *
     *   return await db
     *     .selectFrom('person')
     *     .select('first_name')
     *     .groupBy(ref(groupBy))
     *     .execute()
     * }
     *
     * someQuery('first_name')
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "first_name"
     * from "person"
     * group by "first_name"
     * ```
     */
    groupBy<GE extends GroupByArg<DB, TB, O>>(groupBy: GE): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds an `order by` clause to the query.
     *
     * `orderBy` calls are additive. Meaning, additional `orderBy` calls append to
     * the existing order by clause.
     *
     * `orderBy` is supported in select queries on all dialects. In MySQL, you can
     * also use `orderBy` in update and delete queries.
     *
     * In a single call you can add a single column/expression or multiple columns/expressions.
     *
     * Single column/expression calls can have 1-2 arguments. The first argument is
     * the expression to order by, while the second optional argument is the direction
     * (`asc` or `desc`), a callback that accepts and returns an {@link OrderByItemBuilder}
     * or an expression.
     *
     * See {@link clearOrderBy} to remove the `order by` clause from a query.
     *
     * ### Examples
     *
     * Single column/expression per call:
     *
     * ```ts
     * await db
     *   .selectFrom('person')
     *   .select('person.first_name as fn')
     *   .orderBy('id')
     *   .orderBy('fn', 'desc')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person"."first_name" as "fn"
     * from "person"
     * order by "id", "fn" desc
     * ```
     *
     * Building advanced modifiers:
     *
     * ```ts
     * await db
     *   .selectFrom('person')
     *   .select('person.first_name as fn')
     *   .orderBy('id', (ob) => ob.desc().nullsFirst())
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person"."first_name" as "fn"
     * from "person"
     * order by "id" desc nulls first
     * ```
     *
     * The order by expression can also be a raw sql expression or a subquery
     * in addition to column references:
     *
     * ```ts
     * import { sql } from 'kysely'
     *
     * await db
     *   .selectFrom('person')
     *   .selectAll()
     *   .orderBy((eb) => eb.selectFrom('pet')
     *     .select('pet.name')
     *     .whereRef('pet.owner_id', '=', 'person.id')
     *     .limit(1)
     *   )
     *   .orderBy(
     *     sql<string>`concat(first_name, last_name) asc`
     *   )
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select *
     * from "person"
     * order by
     *   ( select "pet"."name"
     *     from "pet"
     *     where "pet"."owner_id" = "person"."id"
     *     limit $1
     *   ) asc,
     *   concat(first_name, last_name) asc
     * ```
     *
     * `dynamic.ref` can be used to refer to columns not known at
     * compile time:
     *
     * ```ts
     * async function someQuery(orderBy: string) {
     *   const { ref } = db.dynamic
     *
     *   return await db
     *     .selectFrom('person')
     *     .select('person.first_name as fn')
     *     .orderBy(ref(orderBy))
     *     .execute()
     * }
     *
     * someQuery('fn')
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "person"."first_name" as "fn"
     * from "person"
     * order by "fn"
     * ```
     */
    orderBy<OE extends OrderByExpression<DB, TB, O>>(expr: OE, modifiers?: OrderByModifiers): SelectQueryBuilder<DB, TB, O>;
    /**
     * @deprecated It does ~2-2.5x more compile-time instantiations than multiple `orderBy(expr, modifiers?)` calls, and has broken autocompletion.
     */
    orderBy<OE extends OrderByExpression<DB, TB, O> | DirectedOrderByStringReference<DB, TB, O>>(exprs: ReadonlyArray<OE>): SelectQueryBuilder<DB, TB, O>;
    /**
     * @deprecated Use orderBy(expr, direction) instead.
     */
    orderBy<OE extends DirectedOrderByStringReference<DB, TB, O>>(expr: OE): SelectQueryBuilder<DB, TB, O>;
    /**
     * @deprecated Use `orderBy(expr, (ob) => ...)` instead.
     */
    orderBy<OE extends OrderByExpression<DB, TB, O>>(expr: OE, modifiers: Expression<any>): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds a limit clause to the query.
     *
     * Passing a `null` value is only supported by some dialects like PostgreSQL,
     * and will result in a no-op limit clause.
     *
     * ### Examples
     *
     * Select the first 10 rows of the result:
     *
     * ```ts
     * await db
     *   .selectFrom('person')
     *   .select('first_name')
     *   .limit(10)
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "first_name" from "person" limit $1
     * ```
     *
     * Select rows from index 10 to index 19 of the result:
     *
     * ```ts
     * await db
     *   .selectFrom('person')
     *   .select('first_name')
     *   .limit(10)
     *   .offset(10)
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "first_name" from "person" limit $1 offset $2
     * ```
     */
    limit(limit: ValueExpression<DB, TB, number | bigint | null>): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds an `offset` clause to the query.
     *
     * ### Examples
     *
     * Select rows from index 10 to index 19 of the result:
     *
     * ```ts
     * await db
     *   .selectFrom('person')
     *   .select('first_name')
     *   .limit(10)
     *   .offset(10)
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "first_name" from "person" limit $1 offset $2
     * ```
     */
    offset(offset: ValueExpression<DB, TB, number | bigint>): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds a `fetch` clause to the query.
     *
     * This clause is only supported by some dialects like PostgreSQL or MS SQL Server.
     *
     * ### Examples
     *
     * ```ts
     * await db
     *   .selectFrom('person')
     *   .select('first_name')
     *   .orderBy('first_name')
     *   .offset(0)
     *   .fetch(10)
     *   .execute()
     * ```
     *
     * The generated SQL (MS SQL Server):
     *
     * ```sql
     * select "first_name"
     * from "person"
     * order by "first_name"
     * offset 0 rows
     * fetch next 10 rows only
     * ```
     */
    fetch(rowCount: number | bigint, modifier?: FetchModifier): SelectQueryBuilder<DB, TB, O>;
    /**
     * Adds a `top` clause to the query.
     *
     * This clause is only supported by some dialects like MS SQL Server.
     *
     * ### Examples
     *
     * Select 10 biggest ages:
     *
     * ```ts
     * await db
     *   .selectFrom('person')
     *   .select('age')
     *   .top(10)
     *   .orderBy('age desc')
     *   .execute()
     * ```
     *
     * The generated SQL (MS SQL Server):
     *
     * ```sql
     * select top(10) "age" from "person" order by "age" desc
     * ```
     *
     * Select 10% first rows:
     *
     * ```ts
     * await db
     *  .selectFrom('person')
     *  .selectAll()
     *  .top(10, 'percent')
     *  .execute()
     * ```
     *
     * The generated SQL (MS SQL Server):
     *
     * ```sql
     * select top(10) percent * from "person"
     * ```
     */
    top(expression: number | bigint, modifiers?: TopModifier): SelectQueryBuilder<DB, TB, O>;
    /**
     * Combines another select query or raw expression to this query using `union`.
     *
     * The output row type of the combined query must match `this` query.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .union(db.selectFrom('pet').select(['id', 'name']))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * union
     * select "id", "name"
     * from "pet"
     * order by "name"
     * ```
     *
     * You can provide a callback to get an expression builder.
     * In the following example, this allows us to wrap the query in parentheses:
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .union((eb) => eb.parens(
     *     eb.selectFrom('pet').select(['id', 'name'])
     *   ))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * union
     * (
     *   select "id", "name"
     *   from "pet"
     * )
     * order by "name"
     * ```
     */
    union<E extends SetOperandExpression<DB, O>>(expression: E): SelectQueryBuilder<DB, TB, O>;
    /**
     * Combines another select query or raw expression to this query using `union all`.
     *
     * The output row type of the combined query must match `this` query.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .unionAll(db.selectFrom('pet').select(['id', 'name']))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * union all
     * select "id", "name"
     * from "pet"
     * order by "name"
     * ```
     *
     * You can provide a callback to get an expression builder.
     * In the following example, this allows us to wrap the query in parentheses:
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .unionAll((eb) => eb.parens(
     *     eb.selectFrom('pet').select(['id', 'name'])
     *   ))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * union all
     * (
     *   select "id", "name"
     *   from "pet"
     * )
     * order by "name"
     * ```
     */
    unionAll<E extends SetOperandExpression<DB, O>>(expression: E): SelectQueryBuilder<DB, TB, O>;
    /**
     * Combines another select query or raw expression to this query using `intersect`.
     *
     * The output row type of the combined query must match `this` query.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .intersect(db.selectFrom('pet').select(['id', 'name']))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * intersect
     * select "id", "name"
     * from "pet"
     * order by "name"
     * ```
     *
     * You can provide a callback to get an expression builder.
     * In the following example, this allows us to wrap the query in parentheses:
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .intersect((eb) => eb.parens(
     *     eb.selectFrom('pet').select(['id', 'name'])
     *   ))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * intersect
     * (
     *   select "id", "name"
     *   from "pet"
     * )
     * order by "name"
     * ```
     */
    intersect<E extends SetOperandExpression<DB, O>>(expression: E): SelectQueryBuilder<DB, TB, O>;
    /**
     * Combines another select query or raw expression to this query using `intersect all`.
     *
     * The output row type of the combined query must match `this` query.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .intersectAll(db.selectFrom('pet').select(['id', 'name']))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * intersect all
     * select "id", "name"
     * from "pet"
     * order by "name"
     * ```
     *
     * You can provide a callback to get an expression builder.
     * In the following example, this allows us to wrap the query in parentheses:
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .intersectAll((eb) => eb.parens(
     *     eb.selectFrom('pet').select(['id', 'name'])
     *   ))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * intersect all
     * (
     *   select "id", "name"
     *   from "pet"
     * )
     * order by "name"
     * ```
     */
    intersectAll<E extends SetOperandExpression<DB, O>>(expression: E): SelectQueryBuilder<DB, TB, O>;
    /**
     * Combines another select query or raw expression to this query using `except`.
     *
     * The output row type of the combined query must match `this` query.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .except(db.selectFrom('pet').select(['id', 'name']))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * except
     * select "id", "name"
     * from "pet"
     * order by "name"
     * ```
     *
     * You can provide a callback to get an expression builder.
     * In the following example, this allows us to wrap the query in parentheses:
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .except((eb) => eb.parens(
     *     eb.selectFrom('pet').select(['id', 'name'])
     *   ))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * except
     * (
     *   select "id", "name"
     *   from "pet"
     * )
     * order by "name"
     * ```
     */
    except<E extends SetOperandExpression<DB, O>>(expression: E): SelectQueryBuilder<DB, TB, O>;
    /**
     * Combines another select query or raw expression to this query using `except all`.
     *
     * The output row type of the combined query must match `this` query.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .exceptAll(db.selectFrom('pet').select(['id', 'name']))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * except all
     * select "id", "name"
     * from "pet"
     * order by "name"
     * ```
     *
     * You can provide a callback to get an expression builder.
     * In the following example, this allows us to wrap the query in parentheses:
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name as name'])
     *   .exceptAll((eb) => eb.parens(
     *     eb.selectFrom('pet').select(['id', 'name'])
     *   ))
     *   .orderBy('name')
     *   .execute()
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "id", "first_name" as "name"
     * from "person"
     * except all
     * (
     *   select "id", "name"
     *   from "pet"
     * )
     * order by "name"
     * ```
     */
    exceptAll<E extends SetOperandExpression<DB, O>>(expression: E): SelectQueryBuilder<DB, TB, O>;
    /**
     * Gives an alias for the query. This method is only useful for sub queries.
     *
     * ### Examples
     *
     * ```ts
     * const pets = await db.selectFrom('pet')
     *   .selectAll('pet')
     *   .select(
     *     (qb) => qb.selectFrom('person')
     *       .select('first_name')
     *       .whereRef('pet.owner_id', '=', 'person.id')
     *       .as('owner_first_name')
     *   )
     *   .execute()
     *
     * pets[0].owner_first_name
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * select "pet".*, (
     *   select "first_name"
     *   from "person"
     *   where "pet"."owner_id" = "person"."id"
     * ) as "owner_first_name"
     * from "pet"
     * ```
     */
    as<A extends string>(alias: A): AliasedSelectQueryBuilder<O, A>;
    /**
     * Clears all select clauses from the query.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .select(['id', 'first_name'])
     *   .clearSelect()
     *   .select(['id', 'gender'])
     *   .execute()
     * ```
     *
     * The generated SQL(PostgreSQL):
     *
     * ```sql
     * select "id", "gender" from "person"
     * ```
     */
    clearSelect(): SelectQueryBuilder<DB, TB, {}>;
    /**
     * Clears all where expressions from the query.
     *
     * ### Examples
     *
     * ```ts
     * db.selectFrom('person')
     *   .selectAll()
     *   .where('id','=',42)
     *   .clearWhere()
     * ```
     *
     * The generated SQL(PostgreSQL):
     *
     * ```sql
     * select * from "person"
     * ```
     */
    clearWhere(): SelectQueryBuilder<DB, TB, O>;
    /**
     * Clears limit clause from the query.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .selectAll()
     *   .limit(10)
     *   .clearLimit()
     *   .execute()
     * ```
     *
     * The generated SQL(PostgreSQL):
     *
     * ```sql
     * select * from "person"
     * ```
     */
    clearLimit(): SelectQueryBuilder<DB, TB, O>;
    /**
     * Clears offset clause from the query.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .selectAll()
     *   .limit(10)
     *   .offset(20)
     *   .clearOffset()
     *   .execute()
     * ```
     *
     * The generated SQL(PostgreSQL):
     *
     * ```sql
     * select * from "person" limit 10
     * ```
     */
    clearOffset(): SelectQueryBuilder<DB, TB, O>;
    /**
     * Clears all `order by` clauses from the query.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .selectAll()
     *   .orderBy('id')
     *   .clearOrderBy()
     *   .execute()
     * ```
     *
     * The generated SQL(PostgreSQL):
     *
     * ```sql
     * select * from "person"
     * ```
     */
    clearOrderBy(): SelectQueryBuilder<DB, TB, O>;
    /**
     * Clears `group by` clause from the query.
     *
     * ### Examples
     *
     * ```ts
     * await db.selectFrom('person')
     *   .selectAll()
     *   .groupBy('id')
     *   .clearGroupBy()
     *   .execute()
     * ```
     *
     * The generated SQL(PostgreSQL):
     *
     * ```sql
     * select * from "person"
     * ```
     */
    clearGroupBy(): SelectQueryBuilder<DB, TB, O>;
    /**
     * Simply calls the provided function passing `this` as the only argument. `$call` returns
     * what the provided function returns.
     *
     * If you want to conditionally call a method on `this`, see
     * the {@link $if} method.
     *
     * ### Examples
     *
     * The next example uses a helper function `log` to log a query:
     *
     * ```ts
     * import type { Compilable } from 'kysely'
     *
     * function log<T extends Compilable>(qb: T): T {
     *   console.log(qb.compile())
     *   return qb
     * }
     *
     * await db.selectFrom('person')
     *   .selectAll()
     *   .$call(log)
     *   .execute()
     * ```
     */
    $call<T>(func: (qb: this) => T): T;
    /**
     * Call `func(this)` if `condition` is true.
     *
     * NOTE: This method has an impact on TypeScript performance and it should only be used
     * when necessary. Remember that you can call most methods like `where` conditionally
     * like this:
     *
     * ```ts
     * async function getPeople(firstName?: string, lastName?: string) {
     *   let query = db.selectFrom('person').selectAll()
     *
     *   if (firstName) {
     *     query = query.where('first_name', '=', firstName)
     *   }
     *
     *   if (lastName) {
     *     query = query.where('last_name', '=', lastName)
     *   }
     *
     *   return await query.execute()
     * }
     * ```
     *
     * This method is mainly useful with optional selects. Any `select` or `selectAll`
     * method called inside the callback add optional fields to the result type. This is
     * because we can't know if those selections were actually made before running the code.
     *
     * Also see [this recipe](https://github.com/kysely-org/kysely/blob/master/site/docs/recipes/0005-conditional-selects.md)
     *
     * ### Examples
     *
     * ```ts
     * async function getPerson(id: number, withLastName: boolean) {
     *   return await db
     *     .selectFrom('person')
     *     .select(['id', 'first_name'])
     *     .$if(withLastName, (qb) => qb.select('last_name'))
     *     .where('id', '=', id)
     *     .executeTakeFirstOrThrow()
     * }
     * ```
     *
     * Any selections added inside the `if` callback will be added as optional fields to the
     * output type since we can't know if the selections were actually made before running
     * the code. In the example above the return type of the `getPerson` function is:
     *
     * ```ts
     * Promise<{
     *   id: number
     *   first_name: string
     *   last_name?: string
     * }>
     * ```
     *
     * You can also call any other methods inside the callback:
     *
     * ```ts
     * async function getPeople(firstName?: string, petCountLimit?: number) {
     *   return await db.selectFrom('person')
     *     .select('person.id')
     *     .$if(firstName != null, (qb) => qb.where('first_name', '=', firstName!))
     *     .$if(petCountLimit != null, (qb) => qb
     *       .innerJoin('pet', 'pet.owner_id', 'person.id')
     *       .having((eb) => eb.fn.count('pet.id'), '>', petCountLimit!)
     *       .groupBy('person.id')
     *     )
     *     .execute()
     * }
     * ```
     */
    $if<O2>(condition: boolean, func: (qb: this) => SelectQueryBuilder<any, any, O & O2>): SelectQueryBuilder<DB, TB, O & Partial<Omit<O2, keyof O>>>;
    /**
     * Change the output type of the query.
     *
     * This method call doesn't change the SQL in any way. This methods simply
     * returns a copy of this `SelectQueryBuilder` with a new output type.
     */
    $castTo<C>(): SelectQueryBuilder<DB, TB, C>;
    /**
     * Changes the output type from an object to a tuple.
     *
     * This doesn't affect the generated SQL in any way. This function is
     * just a necessary evil when you need to convert a query's output
     * record type to a tuple type. Typescript doesn't currently offer
     * tools to do this automatically (without insane hackery).
     *
     * The returned object can no longer be executed. It can only be used
     * as a subquery.
     *
     * ### Examples
     *
     * ```ts
     * const result = await db
     *   .selectFrom('person')
     *   .selectAll('person')
     *   .where(({ eb, refTuple, selectFrom }) => eb(
     *     refTuple('first_name', 'last_name'),
     *     'in',
     *     selectFrom('pet')
     *       .select(['name', 'species'])
     *       .where('pet.species', '!=', 'cat')
     *       .$asTuple('name', 'species')
     *   ))
     *   .execute()
     * ```
     *
     * The generated SQL(PostgreSQL):
     *
     * ```sql
     * select
     *   "person".*
     * from
     *   "person"
     * where
     *   ("first_name", "last_name")
     *   in
     *   (
     *     select "name", "species"
     *     from "pet"
     *     where "pet"."species" != $1
     *   )
     * ```
     */
    $asTuple<K1 extends keyof O, K2 extends Exclude<keyof O, K1>>(key1: K1, key2: K2): keyof O extends K1 | K2 ? ExpressionWrapper<DB, TB, [O[K1], O[K2]]> : KyselyTypeError<'$asTuple() call failed: All selected columns must be provided as arguments'>;
    $asTuple<K1 extends keyof O, K2 extends Exclude<keyof O, K1>, K3 extends Exclude<keyof O, K1 | K2>>(key1: K1, key2: K2, key3: K3): keyof O extends K1 | K2 | K3 ? ExpressionWrapper<DB, TB, [O[K1], O[K2], O[K3]]> : KyselyTypeError<'$asTuple() call failed: All selected columns must be provided as arguments'>;
    $asTuple<K1 extends keyof O, K2 extends Exclude<keyof O, K1>, K3 extends Exclude<keyof O, K1 | K2>, K4 extends Exclude<keyof O, K1 | K2 | K3>>(key1: K1, key2: K2, key3: K3, key4: K4): keyof O extends K1 | K2 | K3 | K4 ? ExpressionWrapper<DB, TB, [O[K1], O[K2], O[K3], O[K4]]> : KyselyTypeError<'$asTuple() call failed: All selected columns must be provided as arguments'>;
    $asTuple<K1 extends keyof O, K2 extends Exclude<keyof O, K1>, K3 extends Exclude<keyof O, K1 | K2>, K4 extends Exclude<keyof O, K1 | K2 | K3>, K5 extends Exclude<keyof O, K1 | K2 | K3 | K4>>(key1: K1, key2: K2, key3: K3, key4: K4, key5: K5): keyof O extends K1 | K2 | K3 | K4 | K5 ? ExpressionWrapper<DB, TB, [O[K1], O[K2], O[K3], O[K4], O[K5]]> : KyselyTypeError<'$asTuple() call failed: All selected columns must be provided as arguments'>;
    /**
     * Plucks the value type of the output record.
     *
     * In SQL, any record type that only has one column can be used as a scalar.
     * For example a query like this works:
     *
     * ```sql
     * select
     *   id,
     *   first_name
     * from
     *   person as p
     * where
     *   -- This is ok since the query only selects one row
     *   -- and one column.
     *  (select name from pet where pet.owner_id = p.id limit 1) = 'Doggo'
     * ```
     *
     * In many cases Kysely handles this automatically and picks the correct
     * scalar type instead of the record type, but sometimes you need to give
     * Kysely a hint.
     *
     * One such case are custom helper functions that take `Expression<T>`
     * instances as inputs:
     *
     * ```ts
     * import type { Expression } from 'kysely'
     *
     * function doStuff(expr: Expression<string>) {
     *   // ...
     * }
     *
     * // Error! This is not ok because the expression type is
     * // `{ first_name: string }` instead of `string`.
     * // doStuff(db.selectFrom('person').select('first_name'))
     *
     * // Ok! This is ok since we've plucked the `string` type of the
     * // only column in the output type.
     * doStuff(db.selectFrom('person').select('first_name').$asScalar())
     * ```
     *
     * This function has absolutely no effect on the generated SQL. It's
     * purely a type-level helper.
     *
     * This method returns an `ExpressionWrapper` instead of a `SelectQueryBuilder`
     * since the return value should only be used as a part of an expression
     * and never executed as the main query.
     */
    $asScalar<K extends keyof O = keyof O>(): ExpressionWrapper<DB, TB, O[K]>;
    /**
     * Narrows (parts of) the output type of the query.
     *
     * Kysely tries to be as type-safe as possible, but in some cases we have to make
     * compromises for better maintainability and compilation performance. At present,
     * Kysely doesn't narrow the output type of the query when using {@link where}, {@link having}
     * or {@link JoinQueryBuilder.on}.
     *
     * This utility method is very useful for these situations, as it removes unncessary
     * runtime assertion/guard code. Its input type is limited to the output type
     * of the query, so you can't add a column that doesn't exist, or change a column's
     * type to something that doesn't exist in its union type.
     *
     * ### Examples
     *
     * Turn this code:
     *
     * ```ts
     * import type { Person } from 'type-editor' // imaginary module
     *
     * const person = await db.selectFrom('person')
     *   .where('nullable_column', 'is not', null)
     *   .selectAll()
     *   .executeTakeFirstOrThrow()
     *
     * if (isWithNoNullValue(person)) {
     *   functionThatExpectsPersonWithNonNullValue(person)
     * }
     *
     * function isWithNoNullValue(person: Person): person is Person & { nullable_column: string } {
     *   return person.nullable_column != null
     * }
     * ```
     *
     * Into this:
     *
     * ```ts
     * import type { NotNull } from 'kysely'
     *
     * const person = await db.selectFrom('person')
     *   .where('nullable_column', 'is not', null)
     *   .selectAll()
     *   .$narrowType<{ nullable_column: NotNull }>()
     *   .executeTakeFirstOrThrow()
     *
     * functionThatExpectsPersonWithNonNullValue(person)
     * ```
     *
     * Giving the explicit narrowed type (`string` in the example above) works fine for
     * simple types. If the type is complex, for example a JSON column or a subquery,
     * you can use the special `NotNull` type to make the column not null.
     *
     * ```ts
     * import { NotNull } from 'kysely'
     *
     * const person = await db.selectFrom('person')
     *   .where('nullable_column', 'is not', null)
     *   .selectAll()
     *   .$narrowType<{ nullable_column: NotNull }>()
     *   .executeTakeFirstOrThrow()
     *
     * functionThatExpectsPersonWithNonNullValue(person)
     * ```
     */
    $narrowType<T>(): SelectQueryBuilder<DB, TB, NarrowPartial<O, T>>;
    /**
     * Asserts that query's output row type equals the given type `T`.
     *
     * This method can be used to simplify excessively complex types to make TypeScript happy
     * and much faster.
     *
     * Kysely uses complex type magic to achieve its type safety. This complexity is sometimes too much
     * for TypeScript and you get errors like this:
     *
     * ```
     * error TS2589: Type instantiation is excessively deep and possibly infinite.
     * ```
     *
     * In these case you can often use this method to help TypeScript a little bit. When you use this
     * method to assert the output type of a query, Kysely can drop the complex output type that
     * consists of multiple nested helper types and replace it with the simple asserted type.
     *
     * Using this method doesn't reduce type safety at all. You have to pass in a type that is
     * structurally equal to the current type.
     *
     * ### Examples
     *
     * ```ts
     * const result = await db
     *   .with('first_and_last', (qb) => qb
     *     .selectFrom('person')
     *     .select(['first_name', 'last_name'])
     *     .$assertType<{ first_name: string, last_name: string | null }>()
     *   )
     *   .with('age', (qb) => qb
     *     .selectFrom('person')
     *     .select('age')
     *     .$assertType<{ age: number | null }>()
     *   )
     *   .selectFrom(['first_and_last', 'age'])
     *   .selectAll()
     *   .executeTakeFirstOrThrow()
     * ```
     */
    $assertType<T extends O>(): O extends T ? SelectQueryBuilder<DB, TB, T> : KyselyTypeError<`$assertType() call failed: The type passed in is not equal to the output type of the query.`>;
    /**
     * Returns a copy of this SelectQueryBuilder instance with the given plugin installed.
     */
    withPlugin(plugin: KyselyPlugin): SelectQueryBuilder<DB, TB, O>;
    /**
     * Creates the OperationNode that describes how to compile this expression into SQL.
     *
     * ### Examples
     *
     * If you are creating a custom expression, it's often easiest to use the {@link sql}
     * template tag to build the node:
     *
     * ```ts
     * import { type Expression, type OperationNode, sql } from 'kysely'
     *
     * class SomeExpression<T> implements Expression<T> {
     *   get expressionType(): T | undefined {
     *     return undefined
     *   }
     *
     *   toOperationNode(): OperationNode {
     *     return sql`some sql here`.toOperationNode()
     *   }
     * }
     * ```
     */
    toOperationNode(): SelectQueryNode;
    compile(): CompiledQuery<Simplify<O>>;
    /**
     * Executes the query and returns an array of rows.
     *
     * Also see the {@link executeTakeFirst} and {@link executeTakeFirstOrThrow} methods.
     */
    execute(): Promise<Simplify<O>[]>;
    /**
     * Executes the query and returns the first result or undefined if
     * the query returned no result.
     */
    executeTakeFirst(): Promise<SimplifySingleResult<O>>;
    /**
     * Executes the query and returns the first result or throws if
     * the query returned no result.
     *
     * By default an instance of {@link NoResultError} is thrown, but you can
     * provide a custom error class, or callback to throw a different
     * error.
     */
    executeTakeFirstOrThrow(errorConstructor?: NoResultErrorConstructor | ((node: QueryNode) => Error)): Promise<Simplify<O>>;
    /**
     * Executes the query and streams the rows.
     *
     * The optional argument `chunkSize` defines how many rows to fetch from the database
     * at a time. It only affects some dialects like PostgreSQL that support it.
     *
     * ### Examples
     *
     * ```ts
     * const stream = db
     *   .selectFrom('person')
     *   .select(['first_name', 'last_name'])
     *   .where('gender', '=', 'other')
     *   .stream()
     *
     * for await (const person of stream) {
     *   console.log(person.first_name)
     *
     *   if (person.last_name === 'Something') {
     *     // Breaking or returning before the stream has ended will release
     *     // the database connection and invalidate the stream.
     *     break
     *   }
     * }
     * ```
     */
    stream(chunkSize?: number): AsyncIterableIterator<O>;
    /**
     * Executes query with `explain` statement before the main query.
     *
     * ```ts
     * const explained = await db
     *  .selectFrom('person')
     *  .where('gender', '=', 'female')
     *  .selectAll()
     *  .explain('json')
     * ```
     *
     * The generated SQL (MySQL):
     *
     * ```sql
     * explain format=json select * from `person` where `gender` = ?
     * ```
     *
     * You can also execute `explain analyze` statements.
     *
     * ```ts
     * import { sql } from 'kysely'
     *
     * const explained = await db
     *  .selectFrom('person')
     *  .where('gender', '=', 'female')
     *  .selectAll()
     *  .explain('json', sql`analyze`)
     * ```
     *
     * The generated SQL (PostgreSQL):
     *
     * ```sql
     * explain (analyze, format json) select * from "person" where "gender" = $1
     * ```
     */
    explain<ER extends Record<string, any> = Record<string, any>>(format?: ExplainFormat, options?: Expression<any>): Promise<ER[]>;
}
export declare function createSelectQueryBuilder<DB, TB extends keyof DB, O>(props: SelectQueryBuilderProps): SelectQueryBuilder<DB, TB, O>;
export interface SelectQueryBuilderProps {
    readonly queryId: QueryId;
    readonly queryNode: SelectQueryNode;
    readonly executor: QueryExecutor;
}
export interface AliasedSelectQueryBuilder<O = undefined, A extends string = never> extends AliasedExpression<O, A> {
    get isAliasedSelectQueryBuilder(): true;
}
export type SelectQueryBuilderWithInnerJoin<DB, TB extends keyof DB, O, TE extends TableExpression<DB, TB>> = TE extends `${infer T} as ${infer A}` ? T extends keyof DB ? InnerJoinedBuilder<DB, TB, O, A, DB[T]> : never : TE extends keyof DB ? SelectQueryBuilder<DB, TB | TE, O> : TE extends AliasedExpression<infer QO, infer QA> ? InnerJoinedBuilder<DB, TB, O, QA, QO> : TE extends (qb: any) => AliasedExpression<infer QO, infer QA> ? InnerJoinedBuilder<DB, TB, O, QA, QO> : never;
type InnerJoinedBuilder<DB, TB extends keyof DB, O, A extends string, R> = A extends keyof DB ? SelectQueryBuilder<InnerJoinedDB<DB, A, R>, TB | A, O> : SelectQueryBuilder<DB & ShallowRecord<A, R>, TB | A, O>;
type InnerJoinedDB<DB, A extends string, R> = DrainOuterGeneric<{
    [C in keyof DB | A]: C extends A ? R : C extends keyof DB ? DB[C] : never;
}>;
export type SelectQueryBuilderWithLeftJoin<DB, TB extends keyof DB, O, TE extends TableExpression<DB, TB>> = TE extends `${infer T} as ${infer A}` ? T extends keyof DB ? LeftJoinedBuilder<DB, TB, O, A, DB[T]> : never : TE extends keyof DB ? LeftJoinedBuilder<DB, TB, O, TE, DB[TE]> : TE extends AliasedExpression<infer QO, infer QA> ? LeftJoinedBuilder<DB, TB, O, QA, QO> : TE extends (qb: any) => AliasedExpression<infer QO, infer QA> ? LeftJoinedBuilder<DB, TB, O, QA, QO> : never;
type LeftJoinedBuilder<DB, TB extends keyof DB, O, A extends keyof any, R> = A extends keyof DB ? SelectQueryBuilder<LeftJoinedDB<DB, A, R>, TB | A, O> : SelectQueryBuilder<DB & ShallowRecord<A, Nullable<R>>, TB | A, O>;
type LeftJoinedDB<DB, A extends keyof any, R> = DrainOuterGeneric<{
    [C in keyof DB | A]: C extends A ? Nullable<R> : C extends keyof DB ? DB[C] : never;
}>;
export type SelectQueryBuilderWithRightJoin<DB, TB extends keyof DB, O, TE extends TableExpression<DB, TB>> = TE extends `${infer T} as ${infer A}` ? T extends keyof DB ? RightJoinedBuilder<DB, TB, O, A, DB[T]> : never : TE extends keyof DB ? RightJoinedBuilder<DB, TB, O, TE, DB[TE]> : TE extends AliasedExpression<infer QO, infer QA> ? RightJoinedBuilder<DB, TB, O, QA, QO> : TE extends (qb: any) => AliasedExpression<infer QO, infer QA> ? RightJoinedBuilder<DB, TB, O, QA, QO> : never;
type RightJoinedBuilder<DB, TB extends keyof DB, O, A extends keyof any, R> = SelectQueryBuilder<RightJoinedDB<DB, TB, A, R>, TB | A, O>;
type RightJoinedDB<DB, TB extends keyof DB, A extends keyof any, R> = DrainOuterGeneric<{
    [C in keyof DB | A]: C extends A ? R : C extends TB ? Nullable<DB[C]> : C extends keyof DB ? DB[C] : never;
}>;
export type SelectQueryBuilderWithFullJoin<DB, TB extends keyof DB, O, TE extends TableExpression<DB, TB>> = TE extends `${infer T} as ${infer A}` ? T extends keyof DB ? OuterJoinedBuilder<DB, TB, O, A, DB[T]> : never : TE extends keyof DB ? OuterJoinedBuilder<DB, TB, O, TE, DB[TE]> : TE extends AliasedExpression<infer QO, infer QA> ? OuterJoinedBuilder<DB, TB, O, QA, QO> : TE extends (qb: any) => AliasedExpression<infer QO, infer QA> ? OuterJoinedBuilder<DB, TB, O, QA, QO> : never;
type OuterJoinedBuilder<DB, TB extends keyof DB, O, A extends keyof any, R> = SelectQueryBuilder<OuterJoinedBuilderDB<DB, TB, A, R>, TB | A, O>;
type OuterJoinedBuilderDB<DB, TB extends keyof DB, A extends keyof any, R> = DrainOuterGeneric<{
    [C in keyof DB | A]: C extends A ? Nullable<R> : C extends TB ? Nullable<DB[C]> : C extends keyof DB ? DB[C] : never;
}>;
type TableOrList<TB extends keyof any> = (TB & string) | ReadonlyArray<TB & string>;
export {};
