/**
 * @license
 * Copyright Google LLC All Rights Reserved.
 *
 * Use of this source code is governed by an MIT-style license that can be
 * found in the LICENSE file at https://angular.io/license
 */
import ts from 'typescript';
/**
 * Metadata extracted from an instance of a decorator on another declaration, or synthesized from
 * other information about a class.
 */
export type Decorator = ConcreteDecorator | SyntheticDecorator;
export interface BaseDecorator {
    /**
     * Name by which the decorator was invoked in the user's code.
     *
     * This is distinct from the name by which the decorator was imported (though in practice they
     * will usually be the same).
     */
    name: string;
    /**
     * Identifier which refers to the decorator in the user's code.
     */
    identifier: DecoratorIdentifier | null;
    /**
     * `Import` by which the decorator was brought into the module in which it was invoked, or `null`
     * if the decorator was declared in the same module and not imported.
     */
    import: Import | null;
    /**
     * TypeScript reference to the decorator itself, or `null` if the decorator is synthesized (e.g.
     * in ngcc).
     */
    node: ts.Node | null;
    /**
     * Arguments of the invocation of the decorator, if the decorator is invoked, or `null`
     * otherwise.
     */
    args: ts.Expression[] | null;
}
/**
 * Metadata extracted from an instance of a decorator on another declaration, which was actually
 * present in a file.
 *
 * Concrete decorators always have an `identifier` and a `node`.
 */
export interface ConcreteDecorator extends BaseDecorator {
    identifier: DecoratorIdentifier;
    node: ts.Node;
}
/**
 * Synthetic decorators never have an `identifier` or a `node`, but know the node for which they
 * were synthesized.
 */
export interface SyntheticDecorator extends BaseDecorator {
    identifier: null;
    node: null;
    /**
     * The `ts.Node` for which this decorator was created.
     */
    synthesizedFor: ts.Node;
}
export declare const Decorator: {
    nodeForError: (decorator: Decorator) => ts.Node;
};
/**
 * A decorator is identified by either a simple identifier (e.g. `Decorator`) or, in some cases,
 * a namespaced property access (e.g. `core.Decorator`).
 */
export type DecoratorIdentifier = ts.Identifier | NamespacedIdentifier;
export type NamespacedIdentifier = ts.PropertyAccessExpression & {
    expression: ts.Identifier;
    name: ts.Identifier;
};
export declare function isDecoratorIdentifier(exp: ts.Expression): exp is DecoratorIdentifier;
/**
 * The `ts.Declaration` of a "class".
 *
 * Classes are represented differently in different code formats:
 * - In TS code, they are typically defined using the `class` keyword.
 * - In ES2015 code, they are usually defined using the `class` keyword, but they can also be
 *   variable declarations, which are initialized to a class expression (e.g.
 *   `let Foo = Foo1 = class Foo {}`).
 * - In ES5 code, they are typically defined as variable declarations being assigned the return
 *   value of an IIFE. The actual "class" is implemented as a constructor function inside the IIFE,
 *   but the outer variable declaration represents the "class" to the rest of the program.
 *
 * For `ReflectionHost` purposes, a class declaration should always have a `name` identifier,
 * because we need to be able to reference it in other parts of the program.
 */
export type ClassDeclaration<T extends DeclarationNode = DeclarationNode> = T & {
    name: ts.Identifier;
};
/**
 * An enumeration of possible kinds of class members.
 */
export declare enum ClassMemberKind {
    Constructor = 0,
    Getter = 1,
    Setter = 2,
    Property = 3,
    Method = 4
}
/**
 * A member of a class, such as a property, method, or constructor.
 */
export interface ClassMember {
    /**
     * TypeScript reference to the class member itself, or null if it is not applicable.
     */
    node: ts.Node | null;
    /**
     * Indication of which type of member this is (property, method, etc).
     */
    kind: ClassMemberKind;
    /**
     * TypeScript `ts.TypeNode` representing the type of the member, or `null` if not present or
     * applicable.
     */
    type: ts.TypeNode | null;
    /**
     * Name of the class member.
     */
    name: string;
    /**
     * TypeScript `ts.Identifier` or `ts.StringLiteral` representing the name of the member, or `null`
     * if no such node is present.
     *
     * The `nameNode` is useful in writing references to this member that will be correctly source-
     * mapped back to the original file.
     */
    nameNode: ts.Identifier | ts.StringLiteral | null;
    /**
     * TypeScript `ts.Expression` which represents the value of the member.
     *
     * If the member is a property, this will be the property initializer if there is one, or null
     * otherwise.
     */
    value: ts.Expression | null;
    /**
     * TypeScript `ts.Declaration` which represents the implementation of the member.
     *
     * In TypeScript code this is identical to the node, but in downleveled code this should always be
     * the Declaration which actually represents the member's runtime value.
     *
     * For example, the TS code:
     *
     * ```
     * class Clazz {
     *   static get property(): string {
     *     return 'value';
     *   }
     * }
     * ```
     *
     * Downlevels to:
     *
     * ```
     * var Clazz = (function () {
     *   function Clazz() {
     *   }
     *   Object.defineProperty(Clazz, "property", {
     *       get: function () {
     *           return 'value';
     *       },
     *       enumerable: true,
     *       configurable: true
     *   });
     *   return Clazz;
     * }());
     * ```
     *
     * In this example, for the property "property", the node would be the entire
     * Object.defineProperty ExpressionStatement, but the implementation would be this
     * FunctionDeclaration:
     *
     * ```
     * function () {
     *   return 'value';
     * },
     * ```
     */
    implementation: ts.Declaration | null;
    /**
     * Whether the member is static or not.
     */
    isStatic: boolean;
    /**
     * Any `Decorator`s which are present on the member, or `null` if none are present.
     */
    decorators: Decorator[] | null;
}
export declare const enum TypeValueReferenceKind {
    LOCAL = 0,
    IMPORTED = 1,
    UNAVAILABLE = 2
}
/**
 * A type reference that refers to any type via a `ts.Expression` that's valid within the local file
 * where the type was referenced.
 */
export interface LocalTypeValueReference {
    kind: TypeValueReferenceKind.LOCAL;
    /**
     * The synthesized expression to reference the type in a value position.
     */
    expression: ts.Expression;
    /**
     * If the type originates from a default import, the import statement is captured here to be able
     * to track its usages, preventing the import from being elided if it was originally only used in
     * a type-position. See `DefaultImportTracker` for details.
     */
    defaultImportStatement: ts.ImportDeclaration | null;
}
/**
 * A reference that refers to a type that was imported, and gives the symbol `name` and the
 * `moduleName` of the import. Note that this `moduleName` may be a relative path, and thus is
 * likely only valid within the context of the file which contained the original type reference.
 */
export interface ImportedTypeValueReference {
    kind: TypeValueReferenceKind.IMPORTED;
    /**
     * The module specifier from which the `importedName` symbol should be imported.
     */
    moduleName: string;
    /**
     * The name of the top-level symbol that is imported from `moduleName`. If `nestedPath` is also
     * present, a nested object is being referenced from the top-level symbol.
     */
    importedName: string;
    /**
     * If present, represents the symbol names that are referenced from the top-level import.
     * When `null` or empty, the `importedName` itself is the symbol being referenced.
     */
    nestedPath: string[] | null;
    valueDeclaration: DeclarationNode;
}
/**
 * A representation for a type value reference that is used when no value is available. This can
 * occur due to various reasons, which is indicated in the `reason` field.
 */
export interface UnavailableTypeValueReference {
    kind: TypeValueReferenceKind.UNAVAILABLE;
    /**
     * The reason why no value reference could be determined for a type.
     */
    reason: UnavailableValue;
}
/**
 * The various reasons why the compiler may be unable to synthesize a value from a type reference.
 */
export declare const enum ValueUnavailableKind {
    /**
     * No type node was available.
     */
    MISSING_TYPE = 0,
    /**
     * The type does not have a value declaration, e.g. an interface.
     */
    NO_VALUE_DECLARATION = 1,
    /**
     * The type is imported using a type-only imports, so it is not suitable to be used in a
     * value-position.
     */
    TYPE_ONLY_IMPORT = 2,
    /**
     * The type reference could not be resolved to a declaration.
     */
    UNKNOWN_REFERENCE = 3,
    /**
     * The type corresponds with a namespace.
     */
    NAMESPACE = 4,
    /**
     * The type is not supported in the compiler, for example union types.
     */
    UNSUPPORTED = 5
}
export interface UnsupportedType {
    kind: ValueUnavailableKind.UNSUPPORTED;
    typeNode: ts.TypeNode;
}
export interface NoValueDeclaration {
    kind: ValueUnavailableKind.NO_VALUE_DECLARATION;
    typeNode: ts.TypeNode;
    decl: ts.Declaration | null;
}
export interface TypeOnlyImport {
    kind: ValueUnavailableKind.TYPE_ONLY_IMPORT;
    typeNode: ts.TypeNode;
    node: ts.ImportClause | ts.ImportSpecifier;
}
export interface NamespaceImport {
    kind: ValueUnavailableKind.NAMESPACE;
    typeNode: ts.TypeNode;
    importClause: ts.ImportClause;
}
export interface UnknownReference {
    kind: ValueUnavailableKind.UNKNOWN_REFERENCE;
    typeNode: ts.TypeNode;
}
export interface MissingType {
    kind: ValueUnavailableKind.MISSING_TYPE;
}
/**
 * The various reasons why a type node may not be referred to as a value.
 */
export type UnavailableValue = UnsupportedType | NoValueDeclaration | TypeOnlyImport | NamespaceImport | UnknownReference | MissingType;
/**
 * A reference to a value that originated from a type position.
 *
 * For example, a constructor parameter could be declared as `foo: Foo`. A `TypeValueReference`
 * extracted from this would refer to the value of the class `Foo` (assuming it was actually a
 * type).
 *
 * See the individual types for additional information.
 */
export type TypeValueReference = LocalTypeValueReference | ImportedTypeValueReference | UnavailableTypeValueReference;
/**
 * A parameter to a constructor.
 */
export interface CtorParameter {
    /**
     * Name of the parameter, if available.
     *
     * Some parameters don't have a simple string name (for example, parameters which are destructured
     * into multiple variables). In these cases, `name` can be `null`.
     */
    name: string | null;
    /**
     * TypeScript `ts.BindingName` representing the name of the parameter.
     *
     * The `nameNode` is useful in writing references to this member that will be correctly source-
     * mapped back to the original file.
     */
    nameNode: ts.BindingName;
    /**
     * Reference to the value of the parameter's type annotation, if it's possible to refer to the
     * parameter's type as a value.
     *
     * This can either be a reference to a local value, a reference to an imported value, or no
     * value if no is present or cannot be represented as an expression.
     */
    typeValueReference: TypeValueReference;
    /**
     * TypeScript `ts.TypeNode` representing the type node found in the type position.
     *
     * This field can be used for diagnostics reporting if `typeValueReference` is `null`.
     *
     * Can be null, if the param has no type declared.
     */
    typeNode: ts.TypeNode | null;
    /**
     * Any `Decorator`s which are present on the parameter, or `null` if none are present.
     */
    decorators: Decorator[] | null;
}
/**
 * Definition of a function or method, including its body if present and any parameters.
 *
 * In TypeScript code this metadata will be a simple reflection of the declarations in the node
 * itself. In ES5 code this can be more complicated, as the default values for parameters may
 * be extracted from certain body statements.
 */
export interface FunctionDefinition {
    /**
     * A reference to the node which declares the function.
     */
    node: ts.MethodDeclaration | ts.FunctionDeclaration | ts.FunctionExpression | ts.VariableDeclaration;
    /**
     * Statements of the function body, if a body is present, or null if no body is present or the
     * function is identified to represent a tslib helper function, in which case `helper` will
     * indicate which helper this function represents.
     *
     * This list may have been filtered to exclude statements which perform parameter default value
     * initialization.
     */
    body: ts.Statement[] | null;
    /**
     * Metadata regarding the function's parameters, including possible default value expressions.
     */
    parameters: Parameter[];
}
/**
 * Possible declarations of known values, such as built-in objects/functions or TypeScript helpers.
 */
export declare enum KnownDeclaration {
    /**
     * Indicates the JavaScript global `Object` class.
     */
    JsGlobalObject = 0,
    /**
     * Indicates the `__assign` TypeScript helper function.
     */
    TsHelperAssign = 1,
    /**
     * Indicates the `__spread` TypeScript helper function.
     */
    TsHelperSpread = 2,
    /**
     * Indicates the `__spreadArrays` TypeScript helper function.
     */
    TsHelperSpreadArrays = 3,
    /**
     * Indicates the `__spreadArray` TypeScript helper function.
     */
    TsHelperSpreadArray = 4,
    /**
     * Indicates the `__read` TypeScript helper function.
     */
    TsHelperRead = 5
}
/**
 * A parameter to a function or method.
 */
export interface Parameter {
    /**
     * Name of the parameter, if available.
     */
    name: string | null;
    /**
     * Declaration which created this parameter.
     */
    node: ts.ParameterDeclaration;
    /**
     * Expression which represents the default value of the parameter, if any.
     */
    initializer: ts.Expression | null;
}
/**
 * The source of an imported symbol, including the original symbol name and the module from which it
 * was imported.
 */
export interface Import {
    /**
     * The name of the imported symbol under which it was exported (not imported).
     */
    name: string;
    /**
     * The module from which the symbol was imported.
     *
     * This could either be an absolute module name (@angular/core for example) or a relative path.
     */
    from: string;
}
/**
 * A single enum member extracted from JavaScript when no `ts.EnumDeclaration` is available.
 */
export interface EnumMember {
    /**
     * The name of the enum member.
     */
    name: ts.PropertyName;
    /**
     * The initializer expression of the enum member. Unlike in TypeScript, this is always available
     * in emitted JavaScript.
     */
    initializer: ts.Expression;
}
/**
 * A type that is used to identify a declaration.
 *
 * Declarations are normally `ts.Declaration` types such as variable declarations, class
 * declarations, function declarations etc.
 * But in some cases there is no `ts.Declaration` that can be used for a declaration, such
 * as when they are declared inline as part of an exported expression. Then we must use a
 * `ts.Expression` as the declaration.
 * An example of this is `exports.someVar = 42` where the declaration expression would be
 * `exports.someVar`.
 */
export type DeclarationNode = ts.Declaration | ts.Expression;
/**
 * The type of a Declaration - whether its node is concrete (ts.Declaration) or inline
 * (ts.Expression). See `ConcreteDeclaration`, `InlineDeclaration` and `DeclarationNode` for more
 * information about this.
 */
export declare const enum DeclarationKind {
    Concrete = 0,
    Inline = 1
}
/**
 * Base type for all `Declaration`s.
 */
export interface BaseDeclaration<T extends DeclarationNode> {
    /**
     * The type of the underlying `node`.
     */
    kind: DeclarationKind;
    /**
     * The absolute module path from which the symbol was imported into the application, if the symbol
     * was imported via an absolute module (even through a chain of re-exports). If the symbol is part
     * of the application and was not imported from an absolute path, this will be `null`.
     */
    viaModule: string | null;
    /**
     * TypeScript reference to the declaration itself, if one exists.
     */
    node: T;
    /**
     * If set, describes the type of the known declaration this declaration resolves to.
     */
    known: KnownDeclaration | null;
}
/**
 * Returns true if the `decl` is a `ConcreteDeclaration` (ie. that its `node` property is a
 * `ts.Declaration`).
 */
export declare function isConcreteDeclaration(decl: Declaration): decl is ConcreteDeclaration;
export interface ConcreteDeclaration<T extends ts.Declaration = ts.Declaration> extends BaseDeclaration<T> {
    kind: DeclarationKind.Concrete;
    /**
     * Optionally represents a special identity of the declaration, or `null` if the declaration
     * does not have a special identity.
     */
    identity: SpecialDeclarationIdentity | null;
}
export type SpecialDeclarationIdentity = DownleveledEnum;
export declare const enum SpecialDeclarationKind {
    DownleveledEnum = 0
}
/**
 * A special declaration identity that represents an enum. This is used in downleveled forms where
 * a `ts.EnumDeclaration` is emitted in an alternative form, e.g. an IIFE call that declares all
 * members.
 */
export interface DownleveledEnum {
    kind: SpecialDeclarationKind.DownleveledEnum;
    enumMembers: EnumMember[];
}
/**
 * A declaration that does not have an associated TypeScript `ts.Declaration`.
 *
 * This can occur in some downlevelings when an `export const VAR = ...;` (a `ts.Declaration`) is
 * transpiled to an assignment statement (e.g. `exports.VAR = ...;`). There is no `ts.Declaration`
 * associated with `VAR` in that case, only an expression.
 */
export interface InlineDeclaration extends BaseDeclaration<Exclude<DeclarationNode, ts.Declaration>> {
    kind: DeclarationKind.Inline;
    implementation?: DeclarationNode;
}
/**
 * The declaration of a symbol, along with information about how it was imported into the
 * application.
 */
export type Declaration<T extends ts.Declaration = ts.Declaration> = ConcreteDeclaration<T> | InlineDeclaration;
/**
 * Abstracts reflection operations on a TypeScript AST.
 *
 * Depending on the format of the code being interpreted, different concepts are represented
 * with different syntactical structures. The `ReflectionHost` abstracts over those differences and
 * presents a single API by which the compiler can query specific information about the AST.
 *
 * All operations on the `ReflectionHost` require the use of TypeScript `ts.Node`s with binding
 * information already available (that is, nodes that come from a `ts.Program` that has been
 * type-checked, and are not synthetically created).
 */
export interface ReflectionHost {
    /**
     * Examine a declaration (for example, of a class or function) and return metadata about any
     * decorators present on the declaration.
     *
     * @param declaration a TypeScript `ts.Declaration` node representing the class or function over
     * which to reflect. For example, if the intent is to reflect the decorators of a class and the
     * source is in ES6 format, this will be a `ts.ClassDeclaration` node. If the source is in ES5
     * format, this might be a `ts.VariableDeclaration` as classes in ES5 are represented as the
     * result of an IIFE execution.
     *
     * @returns an array of `Decorator` metadata if decorators are present on the declaration, or
     * `null` if either no decorators were present or if the declaration is not of a decoratable type.
     */
    getDecoratorsOfDeclaration(declaration: DeclarationNode): Decorator[] | null;
    /**
     * Examine a declaration which should be of a class, and return metadata about the members of the
     * class.
     *
     * @param clazz a `ClassDeclaration` representing the class over which to reflect.
     *
     * @returns an array of `ClassMember` metadata representing the members of the class.
     *
     * @throws if `declaration` does not resolve to a class declaration.
     */
    getMembersOfClass(clazz: ClassDeclaration): ClassMember[];
    /**
     * Reflect over the constructor of a class and return metadata about its parameters.
     *
     * This method only looks at the constructor of a class directly and not at any inherited
     * constructors.
     *
     * @param clazz a `ClassDeclaration` representing the class over which to reflect.
     *
     * @returns an array of `Parameter` metadata representing the parameters of the constructor, if
     * a constructor exists. If the constructor exists and has 0 parameters, this array will be empty.
     * If the class has no constructor, this method returns `null`.
     */
    getConstructorParameters(clazz: ClassDeclaration): CtorParameter[] | null;
    /**
     * Reflect over a function and return metadata about its parameters and body.
     *
     * Functions in TypeScript and ES5 code have different AST representations, in particular around
     * default values for parameters. A TypeScript function has its default value as the initializer
     * on the parameter declaration, whereas an ES5 function has its default value set in a statement
     * of the form:
     *
     * if (param === void 0) { param = 3; }
     *
     * This method abstracts over these details, and interprets the function declaration and body to
     * extract parameter default values and the "real" body.
     *
     * A current limitation is that this metadata has no representation for shorthand assignment of
     * parameter objects in the function signature.
     *
     * @param fn a TypeScript `ts.Declaration` node representing the function over which to reflect.
     *
     * @returns a `FunctionDefinition` giving metadata about the function definition.
     */
    getDefinitionOfFunction(fn: ts.Node): FunctionDefinition | null;
    /**
     * Determine if an identifier was imported from another module and return `Import` metadata
     * describing its origin.
     *
     * @param id a TypeScript `ts.Identifier` to reflect.
     *
     * @returns metadata about the `Import` if the identifier was imported from another module, or
     * `null` if the identifier doesn't resolve to an import but instead is locally defined.
     */
    getImportOfIdentifier(id: ts.Identifier): Import | null;
    /**
     * Trace an identifier to its declaration, if possible.
     *
     * This method attempts to resolve the declaration of the given identifier, tracing back through
     * imports and re-exports until the original declaration statement is found. A `Declaration`
     * object is returned if the original declaration is found, or `null` is returned otherwise.
     *
     * If the declaration is in a different module, and that module is imported via an absolute path,
     * this method also returns the absolute path of the imported module. For example, if the code is:
     *
     * ```
     * import {RouterModule} from '@angular/core';
     *
     * export const ROUTES = RouterModule.forRoot([...]);
     * ```
     *
     * and if `getDeclarationOfIdentifier` is called on `RouterModule` in the `ROUTES` expression,
     * then it would trace `RouterModule` via its import from `@angular/core`, and note that the
     * definition was imported from `@angular/core` into the application where it was referenced.
     *
     * If the definition is re-exported several times from different absolute module names, only
     * the first one (the one by which the application refers to the module) is returned.
     *
     * This module name is returned in the `viaModule` field of the `Declaration`. If The declaration
     * is relative to the application itself and there was no import through an absolute path, then
     * `viaModule` is `null`.
     *
     * @param id a TypeScript `ts.Identifier` to trace back to a declaration.
     *
     * @returns metadata about the `Declaration` if the original declaration is found, or `null`
     * otherwise.
     */
    getDeclarationOfIdentifier(id: ts.Identifier): Declaration | null;
    /**
     * Collect the declarations exported from a module by name.
     *
     * Iterates over the exports of a module (including re-exports) and returns a map of export
     * name to its `Declaration`. If an exported value is itself re-exported from another module,
     * the `Declaration`'s `viaModule` will reflect that.
     *
     * @param node a TypeScript `ts.Node` representing the module (for example a `ts.SourceFile`) for
     * which to collect exports.
     *
     * @returns a map of `Declaration`s for the module's exports, by name.
     */
    getExportsOfModule(module: ts.Node): Map<string, Declaration> | null;
    /**
     * Check whether the given node actually represents a class.
     */
    isClass(node: ts.Node): node is ClassDeclaration;
    /**
     * Determines whether the given declaration, which should be a class, has a base class.
     *
     * @param clazz a `ClassDeclaration` representing the class over which to reflect.
     */
    hasBaseClass(clazz: ClassDeclaration): boolean;
    /**
     * Get an expression representing the base class (if any) of the given `clazz`.
     *
     * This expression is most commonly an Identifier, but is possible to inherit from a more dynamic
     * expression.
     *
     * @param clazz the class whose base we want to get.
     */
    getBaseClassExpression(clazz: ClassDeclaration): ts.Expression | null;
    /**
     * Get the number of generic type parameters of a given class.
     *
     * @param clazz a `ClassDeclaration` representing the class over which to reflect.
     *
     * @returns the number of type parameters of the class, if known, or `null` if the declaration
     * is not a class or has an unknown number of type parameters.
     */
    getGenericArityOfClass(clazz: ClassDeclaration): number | null;
    /**
     * Find the assigned value of a variable declaration.
     *
     * Normally this will be the initializer of the declaration, but where the variable is
     * not a `const` we may need to look elsewhere for the variable's value.
     *
     * @param declaration a TypeScript variable declaration, whose value we want.
     * @returns the value of the variable, as a TypeScript expression node, or `undefined`
     * if the value cannot be computed.
     */
    getVariableValue(declaration: ts.VariableDeclaration): ts.Expression | null;
    /**
     * Take an exported declaration (maybe a class down-leveled to a variable) and look up the
     * declaration of its type in a separate .d.ts tree.
     *
     * This function is allowed to return `null` if the current compilation unit does not have a
     * separate .d.ts tree. When compiling TypeScript code this is always the case, since .d.ts files
     * are produced only during the emit of such a compilation. When compiling .js code, however,
     * there is frequently a parallel .d.ts tree which this method exposes.
     *
     * Note that the `ts.Declaration` returned from this function may not be from the same
     * `ts.Program` as the input declaration.
     */
    getDtsDeclaration(declaration: DeclarationNode): ts.Declaration | null;
    /**
     * Get a `ts.Identifier` for a given `ClassDeclaration` which can be used to refer to the class
     * within its definition (such as in static fields).
     *
     * This can differ from `clazz.name` when ngcc runs over ES5 code, since the class may have a
     * different name within its IIFE wrapper than it does externally.
     */
    getInternalNameOfClass(clazz: ClassDeclaration): ts.Identifier;
    /**
     * Get a `ts.Identifier` for a given `ClassDeclaration` which can be used to refer to the class
     * from statements that are "adjacent", and conceptually tightly bound, to the class but not
     * actually inside it.
     *
     * Similar to `getInternalNameOfClass()`, this name can differ from `clazz.name` when ngcc runs
     * over ES5 code, since these "adjacent" statements need to exist in the IIFE where the class may
     * have a different name than it does externally.
     */
    getAdjacentNameOfClass(clazz: ClassDeclaration): ts.Identifier;
    /**
     * Returns `true` if a declaration is exported from the module in which it's defined.
     *
     * Not all mechanisms by which a declaration is exported can be statically detected, especially
     * when processing already compiled JavaScript. A `false` result does not indicate that the
     * declaration is never visible outside its module, only that it was not exported via one of the
     * export mechanisms that the `ReflectionHost` is capable of statically checking.
     */
    isStaticallyExported(decl: ts.Node): boolean;
}
