Add Brave CDP automation, replace Oracle browser mode

Connects to user's running Brave via Chrome DevTools Protocol
to automate ChatGPT interaction. Uses puppeteer-core to open a
tab, send the prompt, wait for response, and extract the result.

No cookies, no separate profiles, no copy/paste. Just connects
to the browser where the user is already logged in.

One-time setup: relaunch Brave with --remote-debugging-port=9222

Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com>
This commit is contained in:
Taylor Eernisse
2026-02-07 16:16:41 -05:00
parent d776a266a8
commit e7882b917b
4163 changed files with 782828 additions and 148 deletions

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# Please see the documentation for all configuration options:
# https://help.github.com/github/administering-a-repository/configuration-options-for-dependency-updates
version: 2
updates:
- package-ecosystem: "npm"
directory: "/"
schedule:
interval: "daily"

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name: CI
on:
push:
branches: [ master ]
pull_request:
branches: [ master ]
jobs:
test:
name: Test on node ${{ matrix.node_version }} and ${{ matrix.os }}
runs-on: ${{ matrix.os }}
strategy:
matrix:
node_version: ['10', '12', '14']
os: [ubuntu-latest]
steps:
- uses: actions/checkout@v2
- name: Use Node.js ${{ matrix.node_version }}
uses: actions/setup-node@v1
with:
node-version: ${{ matrix.node_version }}
- name: npm install, build and test
run: |
npm install
npm run build --if-present
npm test

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Copyright (c) 2013 Ben Newman <bn@cs.stanford.edu>
Permission is hereby granted, free of charge, to any person obtaining
a copy of this software and associated documentation files (the
"Software"), to deal in the Software without restriction, including
without limitation the rights to use, copy, modify, merge, publish,
distribute, sublicense, and/or sell copies of the Software, and to
permit persons to whom the Software is furnished to do so, subject to
the following conditions:
The above copyright notice and this permission notice shall be
included in all copies or substantial portions of the Software.
THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND,
EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF
MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT.
IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY
CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT,
TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION WITH THE
SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.

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# AST Types ![CI](https://github.com/benjamn/ast-types/workflows/CI/badge.svg)
This module provides an efficient, modular,
[Esprima](https://github.com/ariya/esprima)-compatible implementation of
the [abstract syntax
tree](http://en.wikipedia.org/wiki/Abstract_syntax_tree) type hierarchy
pioneered by the [Mozilla Parser
API](https://developer.mozilla.org/en-US/docs/SpiderMonkey/Parser_API).
Installation
---
From NPM:
npm install ast-types
From GitHub:
cd path/to/node_modules
git clone git://github.com/benjamn/ast-types.git
cd ast-types
npm install .
Basic Usage
---
```js
import assert from "assert";
import {
namedTypes as n,
builders as b,
} from "ast-types";
var fooId = b.identifier("foo");
var ifFoo = b.ifStatement(fooId, b.blockStatement([
b.expressionStatement(b.callExpression(fooId, []))
]));
assert.ok(n.IfStatement.check(ifFoo));
assert.ok(n.Statement.check(ifFoo));
assert.ok(n.Node.check(ifFoo));
assert.ok(n.BlockStatement.check(ifFoo.consequent));
assert.strictEqual(
ifFoo.consequent.body[0].expression.arguments.length,
0,
);
assert.strictEqual(ifFoo.test, fooId);
assert.ok(n.Expression.check(ifFoo.test));
assert.ok(n.Identifier.check(ifFoo.test));
assert.ok(!n.Statement.check(ifFoo.test));
```
AST Traversal
---
Because it understands the AST type system so thoroughly, this library
is able to provide excellent node iteration and traversal mechanisms.
If you want complete control over the traversal, and all you need is a way
of enumerating the known fields of your AST nodes and getting their
values, you may be interested in the primitives `getFieldNames` and
`getFieldValue`:
```js
import {
getFieldNames,
getFieldValue,
} from "ast-types";
const partialFunExpr = { type: "FunctionExpression" };
// Even though partialFunExpr doesn't actually contain all the fields that
// are expected for a FunctionExpression, types.getFieldNames knows:
console.log(getFieldNames(partialFunExpr));
// [ 'type', 'id', 'params', 'body', 'generator', 'expression',
// 'defaults', 'rest', 'async' ]
// For fields that have default values, types.getFieldValue will return
// the default if the field is not actually defined.
console.log(getFieldValue(partialFunExpr, "generator"));
// false
```
Two more low-level helper functions, `eachField` and `someField`, are
defined in terms of `getFieldNames` and `getFieldValue`:
```js
// Iterate over all defined fields of an object, including those missing
// or undefined, passing each field name and effective value (as returned
// by getFieldValue) to the callback. If the object has no corresponding
// Def, the callback will never be called.
export function eachField(object, callback, context) {
getFieldNames(object).forEach(function(name) {
callback.call(this, name, getFieldValue(object, name));
}, context);
}
// Similar to eachField, except that iteration stops as soon as the
// callback returns a truthy value. Like Array.prototype.some, the final
// result is either true or false to indicates whether the callback
// returned true for any element or not.
export function someField(object, callback, context) {
return getFieldNames(object).some(function(name) {
return callback.call(this, name, getFieldValue(object, name));
}, context);
}
```
So here's how you might make a copy of an AST node:
```js
import { eachField } from "ast-types";
const copy = {};
eachField(node, function(name, value) {
// Note that undefined fields will be visited too, according to
// the rules associated with node.type, and default field values
// will be substituted if appropriate.
copy[name] = value;
})
```
But that's not all! You can also easily visit entire syntax trees using
the powerful `types.visit` abstraction.
Here's a trivial example of how you might assert that `arguments.callee`
is never used in `ast`:
```js
import assert from "assert";
import {
visit,
namedTypes as n,
} from "ast-types";
visit(ast, {
// This method will be called for any node with .type "MemberExpression":
visitMemberExpression(path) {
// Visitor methods receive a single argument, a NodePath object
// wrapping the node of interest.
var node = path.node;
if (
n.Identifier.check(node.object) &&
node.object.name === "arguments" &&
n.Identifier.check(node.property)
) {
assert.notStrictEqual(node.property.name, "callee");
}
// It's your responsibility to call this.traverse with some
// NodePath object (usually the one passed into the visitor
// method) before the visitor method returns, or return false to
// indicate that the traversal need not continue any further down
// this subtree.
this.traverse(path);
}
});
```
Here's a slightly more involved example of transforming `...rest`
parameters into browser-runnable ES5 JavaScript:
```js
import { builders as b, visit } from "ast-types";
// Reuse the same AST structure for Array.prototype.slice.call.
var sliceExpr = b.memberExpression(
b.memberExpression(
b.memberExpression(
b.identifier("Array"),
b.identifier("prototype"),
false
),
b.identifier("slice"),
false
),
b.identifier("call"),
false
);
visit(ast, {
// This method will be called for any node whose type is a subtype of
// Function (e.g., FunctionDeclaration, FunctionExpression, and
// ArrowFunctionExpression). Note that types.visit precomputes a
// lookup table from every known type to the appropriate visitor
// method to call for nodes of that type, so the dispatch takes
// constant time.
visitFunction(path) {
// Visitor methods receive a single argument, a NodePath object
// wrapping the node of interest.
const node = path.node;
// It's your responsibility to call this.traverse with some
// NodePath object (usually the one passed into the visitor
// method) before the visitor method returns, or return false to
// indicate that the traversal need not continue any further down
// this subtree. An assertion will fail if you forget, which is
// awesome, because it means you will never again make the
// disastrous mistake of forgetting to traverse a subtree. Also
// cool: because you can call this method at any point in the
// visitor method, it's up to you whether your traversal is
// pre-order, post-order, or both!
this.traverse(path);
// This traversal is only concerned with Function nodes that have
// rest parameters.
if (!node.rest) {
return;
}
// For the purposes of this example, we won't worry about functions
// with Expression bodies.
n.BlockStatement.assert(node.body);
// Use types.builders to build a variable declaration of the form
//
// var rest = Array.prototype.slice.call(arguments, n);
//
// where `rest` is the name of the rest parameter, and `n` is a
// numeric literal specifying the number of named parameters the
// function takes.
const restVarDecl = b.variableDeclaration("var", [
b.variableDeclarator(
node.rest,
b.callExpression(sliceExpr, [
b.identifier("arguments"),
b.literal(node.params.length)
])
)
]);
// Similar to doing node.body.body.unshift(restVarDecl), except
// that the other NodePath objects wrapping body statements will
// have their indexes updated to accommodate the new statement.
path.get("body", "body").unshift(restVarDecl);
// Nullify node.rest now that we have simulated the behavior of
// the rest parameter using ordinary JavaScript.
path.get("rest").replace(null);
// There's nothing wrong with doing node.rest = null, but I wanted
// to point out that the above statement has the same effect.
assert.strictEqual(node.rest, null);
}
});
```
Here's how you might use `types.visit` to implement a function that
determines if a given function node refers to `this`:
```js
function usesThis(funcNode) {
n.Function.assert(funcNode);
var result = false;
visit(funcNode, {
visitThisExpression(path) {
result = true;
// The quickest way to terminate the traversal is to call
// this.abort(), which throws a special exception (instanceof
// this.AbortRequest) that will be caught in the top-level
// types.visit method, so you don't have to worry about
// catching the exception yourself.
this.abort();
},
visitFunction(path) {
// ThisExpression nodes in nested scopes don't count as `this`
// references for the original function node, so we can safely
// avoid traversing this subtree.
return false;
},
visitCallExpression(path) {
const node = path.node;
// If the function contains CallExpression nodes involving
// super, those expressions will implicitly depend on the
// value of `this`, even though they do not explicitly contain
// any ThisExpression nodes.
if (this.isSuperCallExpression(node)) {
result = true;
this.abort(); // Throws AbortRequest exception.
}
this.traverse(path);
},
// Yes, you can define arbitrary helper methods.
isSuperCallExpression(callExpr) {
n.CallExpression.assert(callExpr);
return this.isSuperIdentifier(callExpr.callee)
|| this.isSuperMemberExpression(callExpr.callee);
},
// And even helper helper methods!
isSuperIdentifier(node) {
return n.Identifier.check(node.callee)
&& node.callee.name === "super";
},
isSuperMemberExpression(node) {
return n.MemberExpression.check(node.callee)
&& n.Identifier.check(node.callee.object)
&& node.callee.object.name === "super";
}
});
return result;
}
```
As you might guess, when an `AbortRequest` is thrown from a subtree, the
exception will propagate from the corresponding calls to `this.traverse`
in the ancestor visitor methods. If you decide you want to cancel the
request, simply catch the exception and call its `.cancel()` method. The
rest of the subtree beneath the `try`-`catch` block will be abandoned, but
the remaining siblings of the ancestor node will still be visited.
NodePath
---
The `NodePath` object passed to visitor methods is a wrapper around an AST
node, and it serves to provide access to the chain of ancestor objects
(all the way back to the root of the AST) and scope information.
In general, `path.node` refers to the wrapped node, `path.parent.node`
refers to the nearest `Node` ancestor, `path.parent.parent.node` to the
grandparent, and so on.
Note that `path.node` may not be a direct property value of
`path.parent.node`; for instance, it might be the case that `path.node` is
an element of an array that is a direct child of the parent node:
```js
path.node === path.parent.node.elements[3]
```
in which case you should know that `path.parentPath` provides
finer-grained access to the complete path of objects (not just the `Node`
ones) from the root of the AST:
```js
// In reality, path.parent is the grandparent of path:
path.parentPath.parentPath === path.parent
// The path.parentPath object wraps the elements array (note that we use
// .value because the elements array is not a Node):
path.parentPath.value === path.parent.node.elements
// The path.node object is the fourth element in that array:
path.parentPath.value[3] === path.node
// Unlike path.node and path.value, which are synonyms because path.node
// is a Node object, path.parentPath.node is distinct from
// path.parentPath.value, because the elements array is not a
// Node. Instead, path.parentPath.node refers to the closest ancestor
// Node, which happens to be the same as path.parent.node:
path.parentPath.node === path.parent.node
// The path is named for its index in the elements array:
path.name === 3
// Likewise, path.parentPath is named for the property by which
// path.parent.node refers to it:
path.parentPath.name === "elements"
// Putting it all together, we can follow the chain of object references
// from path.parent.node all the way to path.node by accessing each
// property by name:
path.parent.node[path.parentPath.name][path.name] === path.node
```
These `NodePath` objects are created during the traversal without
modifying the AST nodes themselves, so it's not a problem if the same node
appears more than once in the AST (like `Array.prototype.slice.call` in
the example above), because it will be visited with a distict `NodePath`
each time it appears.
Child `NodePath` objects are created lazily, by calling the `.get` method
of a parent `NodePath` object:
```js
// If a NodePath object for the elements array has never been created
// before, it will be created here and cached in the future:
path.get("elements").get(3).value === path.value.elements[3]
// Alternatively, you can pass multiple property names to .get instead of
// chaining multiple .get calls:
path.get("elements", 0).value === path.value.elements[0]
```
`NodePath` objects support a number of useful methods:
```js
// Replace one node with another node:
var fifth = path.get("elements", 4);
fifth.replace(newNode);
// Now do some stuff that might rearrange the list, and this replacement
// remains safe:
fifth.replace(newerNode);
// Replace the third element in an array with two new nodes:
path.get("elements", 2).replace(
b.identifier("foo"),
b.thisExpression()
);
// Remove a node and its parent if it would leave a redundant AST node:
//e.g. var t = 1, y =2; removing the `t` and `y` declarators results in `var undefined`.
path.prune(); //returns the closest parent `NodePath`.
// Remove a node from a list of nodes:
path.get("elements", 3).replace();
// Add three new nodes to the beginning of a list of nodes:
path.get("elements").unshift(a, b, c);
// Remove and return the first node in a list of nodes:
path.get("elements").shift();
// Push two new nodes onto the end of a list of nodes:
path.get("elements").push(d, e);
// Remove and return the last node in a list of nodes:
path.get("elements").pop();
// Insert a new node before/after the seventh node in a list of nodes:
var seventh = path.get("elements", 6);
seventh.insertBefore(newNode);
seventh.insertAfter(newNode);
// Insert a new element at index 5 in a list of nodes:
path.get("elements").insertAt(5, newNode);
```
Scope
---
The object exposed as `path.scope` during AST traversals provides
information about variable and function declarations in the scope that
contains `path.node`. See [scope.ts](lib/scope.ts) for its public
interface, which currently includes `.isGlobal`, `.getGlobalScope()`,
`.depth`, `.declares(name)`, `.lookup(name)`, and `.getBindings()`.
Custom AST Node Types
---
The `ast-types` module was designed to be extended. To that end, it
provides a readable, declarative syntax for specifying new AST node types,
based primarily upon the `require("ast-types").Type.def` function:
```js
import {
Type,
builtInTypes,
builders as b,
finalize,
} from "ast-types";
const { def } = Type;
const { string } = builtInTypes;
// Suppose you need a named File type to wrap your Programs.
def("File")
.bases("Node")
.build("name", "program")
.field("name", string)
.field("program", def("Program"));
// Prevent further modifications to the File type (and any other
// types newly introduced by def(...)).
finalize();
// The b.file builder function is now available. It expects two
// arguments, as named by .build("name", "program") above.
const main = b.file("main.js", b.program([
// Pointless program contents included for extra color.
b.functionDeclaration(b.identifier("succ"), [
b.identifier("x")
], b.blockStatement([
b.returnStatement(
b.binaryExpression(
"+", b.identifier("x"), b.literal(1)
)
)
]))
]));
assert.strictEqual(main.name, "main.js");
assert.strictEqual(main.program.body[0].params[0].name, "x");
// etc.
// If you pass the wrong type of arguments, or fail to pass enough
// arguments, an AssertionError will be thrown.
b.file(b.blockStatement([]));
// ==> AssertionError: {"body":[],"type":"BlockStatement","loc":null} does not match type string
b.file("lib/types.js", b.thisExpression());
// ==> AssertionError: {"type":"ThisExpression","loc":null} does not match type Program
```
The `def` syntax is used to define all the default AST node types found in
[babel-core.ts](def/babel-core.ts),
[babel.ts](def/babel.ts),
[core.ts](def/core.ts),
[es-proposals.ts](def/es-proposals.ts),
[es6.ts](def/es6.ts),
[es7.ts](def/es7.ts),
[es2020.ts](def/es2020.ts),
[esprima.ts](def/esprima.ts),
[flow.ts](def/flow.ts),
[jsx.ts](def/jsx.ts),
[type-annotations.ts](def/type-annotations.ts),
and
[typescripts.ts](def/typescripts.ts),
so you have
no shortage of examples to learn from.

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import { Fork } from "../types";
export default function (fork: Fork): void;

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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var types_1 = tslib_1.__importDefault(require("../lib/types"));
var shared_1 = tslib_1.__importDefault(require("../lib/shared"));
var es7_1 = tslib_1.__importDefault(require("./es7"));
function default_1(fork) {
fork.use(es7_1.default);
var types = fork.use(types_1.default);
var defaults = fork.use(shared_1.default).defaults;
var def = types.Type.def;
var or = types.Type.or;
def("Noop")
.bases("Statement")
.build();
def("DoExpression")
.bases("Expression")
.build("body")
.field("body", [def("Statement")]);
def("Super")
.bases("Expression")
.build();
def("BindExpression")
.bases("Expression")
.build("object", "callee")
.field("object", or(def("Expression"), null))
.field("callee", def("Expression"));
def("Decorator")
.bases("Node")
.build("expression")
.field("expression", def("Expression"));
def("Property")
.field("decorators", or([def("Decorator")], null), defaults["null"]);
def("MethodDefinition")
.field("decorators", or([def("Decorator")], null), defaults["null"]);
def("MetaProperty")
.bases("Expression")
.build("meta", "property")
.field("meta", def("Identifier"))
.field("property", def("Identifier"));
def("ParenthesizedExpression")
.bases("Expression")
.build("expression")
.field("expression", def("Expression"));
def("ImportSpecifier")
.bases("ModuleSpecifier")
.build("imported", "local")
.field("imported", def("Identifier"));
def("ImportDefaultSpecifier")
.bases("ModuleSpecifier")
.build("local");
def("ImportNamespaceSpecifier")
.bases("ModuleSpecifier")
.build("local");
def("ExportDefaultDeclaration")
.bases("Declaration")
.build("declaration")
.field("declaration", or(def("Declaration"), def("Expression")));
def("ExportNamedDeclaration")
.bases("Declaration")
.build("declaration", "specifiers", "source")
.field("declaration", or(def("Declaration"), null))
.field("specifiers", [def("ExportSpecifier")], defaults.emptyArray)
.field("source", or(def("Literal"), null), defaults["null"]);
def("ExportSpecifier")
.bases("ModuleSpecifier")
.build("local", "exported")
.field("exported", def("Identifier"));
def("ExportNamespaceSpecifier")
.bases("Specifier")
.build("exported")
.field("exported", def("Identifier"));
def("ExportDefaultSpecifier")
.bases("Specifier")
.build("exported")
.field("exported", def("Identifier"));
def("ExportAllDeclaration")
.bases("Declaration")
.build("exported", "source")
.field("exported", or(def("Identifier"), null))
.field("source", def("Literal"));
def("CommentBlock")
.bases("Comment")
.build("value", /*optional:*/ "leading", "trailing");
def("CommentLine")
.bases("Comment")
.build("value", /*optional:*/ "leading", "trailing");
def("Directive")
.bases("Node")
.build("value")
.field("value", def("DirectiveLiteral"));
def("DirectiveLiteral")
.bases("Node", "Expression")
.build("value")
.field("value", String, defaults["use strict"]);
def("InterpreterDirective")
.bases("Node")
.build("value")
.field("value", String);
def("BlockStatement")
.bases("Statement")
.build("body")
.field("body", [def("Statement")])
.field("directives", [def("Directive")], defaults.emptyArray);
def("Program")
.bases("Node")
.build("body")
.field("body", [def("Statement")])
.field("directives", [def("Directive")], defaults.emptyArray)
.field("interpreter", or(def("InterpreterDirective"), null), defaults["null"]);
// Split Literal
def("StringLiteral")
.bases("Literal")
.build("value")
.field("value", String);
def("NumericLiteral")
.bases("Literal")
.build("value")
.field("value", Number)
.field("raw", or(String, null), defaults["null"])
.field("extra", {
rawValue: Number,
raw: String
}, function getDefault() {
return {
rawValue: this.value,
raw: this.value + ""
};
});
def("BigIntLiteral")
.bases("Literal")
.build("value")
// Only String really seems appropriate here, since BigInt values
// often exceed the limits of JS numbers.
.field("value", or(String, Number))
.field("extra", {
rawValue: String,
raw: String
}, function getDefault() {
return {
rawValue: String(this.value),
raw: this.value + "n"
};
});
def("NullLiteral")
.bases("Literal")
.build()
.field("value", null, defaults["null"]);
def("BooleanLiteral")
.bases("Literal")
.build("value")
.field("value", Boolean);
def("RegExpLiteral")
.bases("Literal")
.build("pattern", "flags")
.field("pattern", String)
.field("flags", String)
.field("value", RegExp, function () {
return new RegExp(this.pattern, this.flags);
});
var ObjectExpressionProperty = or(def("Property"), def("ObjectMethod"), def("ObjectProperty"), def("SpreadProperty"), def("SpreadElement"));
// Split Property -> ObjectProperty and ObjectMethod
def("ObjectExpression")
.bases("Expression")
.build("properties")
.field("properties", [ObjectExpressionProperty]);
// ObjectMethod hoist .value properties to own properties
def("ObjectMethod")
.bases("Node", "Function")
.build("kind", "key", "params", "body", "computed")
.field("kind", or("method", "get", "set"))
.field("key", or(def("Literal"), def("Identifier"), def("Expression")))
.field("params", [def("Pattern")])
.field("body", def("BlockStatement"))
.field("computed", Boolean, defaults["false"])
.field("generator", Boolean, defaults["false"])
.field("async", Boolean, defaults["false"])
.field("accessibility", // TypeScript
or(def("Literal"), null), defaults["null"])
.field("decorators", or([def("Decorator")], null), defaults["null"]);
def("ObjectProperty")
.bases("Node")
.build("key", "value")
.field("key", or(def("Literal"), def("Identifier"), def("Expression")))
.field("value", or(def("Expression"), def("Pattern")))
.field("accessibility", // TypeScript
or(def("Literal"), null), defaults["null"])
.field("computed", Boolean, defaults["false"]);
var ClassBodyElement = or(def("MethodDefinition"), def("VariableDeclarator"), def("ClassPropertyDefinition"), def("ClassProperty"), def("ClassPrivateProperty"), def("ClassMethod"), def("ClassPrivateMethod"));
// MethodDefinition -> ClassMethod
def("ClassBody")
.bases("Declaration")
.build("body")
.field("body", [ClassBodyElement]);
def("ClassMethod")
.bases("Declaration", "Function")
.build("kind", "key", "params", "body", "computed", "static")
.field("key", or(def("Literal"), def("Identifier"), def("Expression")));
def("ClassPrivateMethod")
.bases("Declaration", "Function")
.build("key", "params", "body", "kind", "computed", "static")
.field("key", def("PrivateName"));
["ClassMethod",
"ClassPrivateMethod",
].forEach(function (typeName) {
def(typeName)
.field("kind", or("get", "set", "method", "constructor"), function () { return "method"; })
.field("body", def("BlockStatement"))
.field("computed", Boolean, defaults["false"])
.field("static", or(Boolean, null), defaults["null"])
.field("abstract", or(Boolean, null), defaults["null"])
.field("access", or("public", "private", "protected", null), defaults["null"])
.field("accessibility", or("public", "private", "protected", null), defaults["null"])
.field("decorators", or([def("Decorator")], null), defaults["null"])
.field("optional", or(Boolean, null), defaults["null"]);
});
def("ClassPrivateProperty")
.bases("ClassProperty")
.build("key", "value")
.field("key", def("PrivateName"))
.field("value", or(def("Expression"), null), defaults["null"]);
def("PrivateName")
.bases("Expression", "Pattern")
.build("id")
.field("id", def("Identifier"));
var ObjectPatternProperty = or(def("Property"), def("PropertyPattern"), def("SpreadPropertyPattern"), def("SpreadProperty"), // Used by Esprima
def("ObjectProperty"), // Babel 6
def("RestProperty") // Babel 6
);
// Split into RestProperty and SpreadProperty
def("ObjectPattern")
.bases("Pattern")
.build("properties")
.field("properties", [ObjectPatternProperty])
.field("decorators", or([def("Decorator")], null), defaults["null"]);
def("SpreadProperty")
.bases("Node")
.build("argument")
.field("argument", def("Expression"));
def("RestProperty")
.bases("Node")
.build("argument")
.field("argument", def("Expression"));
def("ForAwaitStatement")
.bases("Statement")
.build("left", "right", "body")
.field("left", or(def("VariableDeclaration"), def("Expression")))
.field("right", def("Expression"))
.field("body", def("Statement"));
// The callee node of a dynamic import(...) expression.
def("Import")
.bases("Expression")
.build();
}
exports.default = default_1;
module.exports = exports["default"];

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import { Fork } from "../types";
export default function (fork: Fork): void;

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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var babel_core_1 = tslib_1.__importDefault(require("./babel-core"));
var flow_1 = tslib_1.__importDefault(require("./flow"));
function default_1(fork) {
fork.use(babel_core_1.default);
fork.use(flow_1.default);
}
exports.default = default_1;
module.exports = exports["default"];

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import { Fork } from "../types";
export default function (fork: Fork): void;

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node_modules/ast-types/def/core.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var types_1 = tslib_1.__importDefault(require("../lib/types"));
var shared_1 = tslib_1.__importDefault(require("../lib/shared"));
function default_1(fork) {
var types = fork.use(types_1.default);
var Type = types.Type;
var def = Type.def;
var or = Type.or;
var shared = fork.use(shared_1.default);
var defaults = shared.defaults;
var geq = shared.geq;
// Abstract supertype of all syntactic entities that are allowed to have a
// .loc field.
def("Printable")
.field("loc", or(def("SourceLocation"), null), defaults["null"], true);
def("Node")
.bases("Printable")
.field("type", String)
.field("comments", or([def("Comment")], null), defaults["null"], true);
def("SourceLocation")
.field("start", def("Position"))
.field("end", def("Position"))
.field("source", or(String, null), defaults["null"]);
def("Position")
.field("line", geq(1))
.field("column", geq(0));
def("File")
.bases("Node")
.build("program", "name")
.field("program", def("Program"))
.field("name", or(String, null), defaults["null"]);
def("Program")
.bases("Node")
.build("body")
.field("body", [def("Statement")]);
def("Function")
.bases("Node")
.field("id", or(def("Identifier"), null), defaults["null"])
.field("params", [def("Pattern")])
.field("body", def("BlockStatement"))
.field("generator", Boolean, defaults["false"])
.field("async", Boolean, defaults["false"]);
def("Statement").bases("Node");
// The empty .build() here means that an EmptyStatement can be constructed
// (i.e. it's not abstract) but that it needs no arguments.
def("EmptyStatement").bases("Statement").build();
def("BlockStatement")
.bases("Statement")
.build("body")
.field("body", [def("Statement")]);
// TODO Figure out how to silently coerce Expressions to
// ExpressionStatements where a Statement was expected.
def("ExpressionStatement")
.bases("Statement")
.build("expression")
.field("expression", def("Expression"));
def("IfStatement")
.bases("Statement")
.build("test", "consequent", "alternate")
.field("test", def("Expression"))
.field("consequent", def("Statement"))
.field("alternate", or(def("Statement"), null), defaults["null"]);
def("LabeledStatement")
.bases("Statement")
.build("label", "body")
.field("label", def("Identifier"))
.field("body", def("Statement"));
def("BreakStatement")
.bases("Statement")
.build("label")
.field("label", or(def("Identifier"), null), defaults["null"]);
def("ContinueStatement")
.bases("Statement")
.build("label")
.field("label", or(def("Identifier"), null), defaults["null"]);
def("WithStatement")
.bases("Statement")
.build("object", "body")
.field("object", def("Expression"))
.field("body", def("Statement"));
def("SwitchStatement")
.bases("Statement")
.build("discriminant", "cases", "lexical")
.field("discriminant", def("Expression"))
.field("cases", [def("SwitchCase")])
.field("lexical", Boolean, defaults["false"]);
def("ReturnStatement")
.bases("Statement")
.build("argument")
.field("argument", or(def("Expression"), null));
def("ThrowStatement")
.bases("Statement")
.build("argument")
.field("argument", def("Expression"));
def("TryStatement")
.bases("Statement")
.build("block", "handler", "finalizer")
.field("block", def("BlockStatement"))
.field("handler", or(def("CatchClause"), null), function () {
return this.handlers && this.handlers[0] || null;
})
.field("handlers", [def("CatchClause")], function () {
return this.handler ? [this.handler] : [];
}, true) // Indicates this field is hidden from eachField iteration.
.field("guardedHandlers", [def("CatchClause")], defaults.emptyArray)
.field("finalizer", or(def("BlockStatement"), null), defaults["null"]);
def("CatchClause")
.bases("Node")
.build("param", "guard", "body")
// https://github.com/tc39/proposal-optional-catch-binding
.field("param", or(def("Pattern"), null), defaults["null"])
.field("guard", or(def("Expression"), null), defaults["null"])
.field("body", def("BlockStatement"));
def("WhileStatement")
.bases("Statement")
.build("test", "body")
.field("test", def("Expression"))
.field("body", def("Statement"));
def("DoWhileStatement")
.bases("Statement")
.build("body", "test")
.field("body", def("Statement"))
.field("test", def("Expression"));
def("ForStatement")
.bases("Statement")
.build("init", "test", "update", "body")
.field("init", or(def("VariableDeclaration"), def("Expression"), null))
.field("test", or(def("Expression"), null))
.field("update", or(def("Expression"), null))
.field("body", def("Statement"));
def("ForInStatement")
.bases("Statement")
.build("left", "right", "body")
.field("left", or(def("VariableDeclaration"), def("Expression")))
.field("right", def("Expression"))
.field("body", def("Statement"));
def("DebuggerStatement").bases("Statement").build();
def("Declaration").bases("Statement");
def("FunctionDeclaration")
.bases("Function", "Declaration")
.build("id", "params", "body")
.field("id", def("Identifier"));
def("FunctionExpression")
.bases("Function", "Expression")
.build("id", "params", "body");
def("VariableDeclaration")
.bases("Declaration")
.build("kind", "declarations")
.field("kind", or("var", "let", "const"))
.field("declarations", [def("VariableDeclarator")]);
def("VariableDeclarator")
.bases("Node")
.build("id", "init")
.field("id", def("Pattern"))
.field("init", or(def("Expression"), null), defaults["null"]);
def("Expression").bases("Node");
def("ThisExpression").bases("Expression").build();
def("ArrayExpression")
.bases("Expression")
.build("elements")
.field("elements", [or(def("Expression"), null)]);
def("ObjectExpression")
.bases("Expression")
.build("properties")
.field("properties", [def("Property")]);
// TODO Not in the Mozilla Parser API, but used by Esprima.
def("Property")
.bases("Node") // Want to be able to visit Property Nodes.
.build("kind", "key", "value")
.field("kind", or("init", "get", "set"))
.field("key", or(def("Literal"), def("Identifier")))
.field("value", def("Expression"));
def("SequenceExpression")
.bases("Expression")
.build("expressions")
.field("expressions", [def("Expression")]);
var UnaryOperator = or("-", "+", "!", "~", "typeof", "void", "delete");
def("UnaryExpression")
.bases("Expression")
.build("operator", "argument", "prefix")
.field("operator", UnaryOperator)
.field("argument", def("Expression"))
// Esprima doesn't bother with this field, presumably because it's
// always true for unary operators.
.field("prefix", Boolean, defaults["true"]);
var BinaryOperator = or("==", "!=", "===", "!==", "<", "<=", ">", ">=", "<<", ">>", ">>>", "+", "-", "*", "/", "%", "**", "&", // TODO Missing from the Parser API.
"|", "^", "in", "instanceof");
def("BinaryExpression")
.bases("Expression")
.build("operator", "left", "right")
.field("operator", BinaryOperator)
.field("left", def("Expression"))
.field("right", def("Expression"));
var AssignmentOperator = or("=", "+=", "-=", "*=", "/=", "%=", "<<=", ">>=", ">>>=", "|=", "^=", "&=");
def("AssignmentExpression")
.bases("Expression")
.build("operator", "left", "right")
.field("operator", AssignmentOperator)
.field("left", or(def("Pattern"), def("MemberExpression")))
.field("right", def("Expression"));
var UpdateOperator = or("++", "--");
def("UpdateExpression")
.bases("Expression")
.build("operator", "argument", "prefix")
.field("operator", UpdateOperator)
.field("argument", def("Expression"))
.field("prefix", Boolean);
var LogicalOperator = or("||", "&&");
def("LogicalExpression")
.bases("Expression")
.build("operator", "left", "right")
.field("operator", LogicalOperator)
.field("left", def("Expression"))
.field("right", def("Expression"));
def("ConditionalExpression")
.bases("Expression")
.build("test", "consequent", "alternate")
.field("test", def("Expression"))
.field("consequent", def("Expression"))
.field("alternate", def("Expression"));
def("NewExpression")
.bases("Expression")
.build("callee", "arguments")
.field("callee", def("Expression"))
// The Mozilla Parser API gives this type as [or(def("Expression"),
// null)], but null values don't really make sense at the call site.
// TODO Report this nonsense.
.field("arguments", [def("Expression")]);
def("CallExpression")
.bases("Expression")
.build("callee", "arguments")
.field("callee", def("Expression"))
// See comment for NewExpression above.
.field("arguments", [def("Expression")]);
def("MemberExpression")
.bases("Expression")
.build("object", "property", "computed")
.field("object", def("Expression"))
.field("property", or(def("Identifier"), def("Expression")))
.field("computed", Boolean, function () {
var type = this.property.type;
if (type === 'Literal' ||
type === 'MemberExpression' ||
type === 'BinaryExpression') {
return true;
}
return false;
});
def("Pattern").bases("Node");
def("SwitchCase")
.bases("Node")
.build("test", "consequent")
.field("test", or(def("Expression"), null))
.field("consequent", [def("Statement")]);
def("Identifier")
.bases("Expression", "Pattern")
.build("name")
.field("name", String)
.field("optional", Boolean, defaults["false"]);
def("Literal")
.bases("Expression")
.build("value")
.field("value", or(String, Boolean, null, Number, RegExp))
.field("regex", or({
pattern: String,
flags: String
}, null), function () {
if (this.value instanceof RegExp) {
var flags = "";
if (this.value.ignoreCase)
flags += "i";
if (this.value.multiline)
flags += "m";
if (this.value.global)
flags += "g";
return {
pattern: this.value.source,
flags: flags
};
}
return null;
});
// Abstract (non-buildable) comment supertype. Not a Node.
def("Comment")
.bases("Printable")
.field("value", String)
// A .leading comment comes before the node, whereas a .trailing
// comment comes after it. These two fields should not both be true,
// but they might both be false when the comment falls inside a node
// and the node has no children for the comment to lead or trail,
// e.g. { /*dangling*/ }.
.field("leading", Boolean, defaults["true"])
.field("trailing", Boolean, defaults["false"]);
}
exports.default = default_1;
module.exports = exports["default"];

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node_modules/ast-types/def/es-proposals.d.ts generated vendored Normal file
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import { Fork } from "../types";
export default function (fork: Fork): void;

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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var types_1 = tslib_1.__importDefault(require("../lib/types"));
var shared_1 = tslib_1.__importDefault(require("../lib/shared"));
var core_1 = tslib_1.__importDefault(require("./core"));
function default_1(fork) {
fork.use(core_1.default);
var types = fork.use(types_1.default);
var Type = types.Type;
var def = types.Type.def;
var or = Type.or;
var shared = fork.use(shared_1.default);
var defaults = shared.defaults;
// https://github.com/tc39/proposal-optional-chaining
// `a?.b` as per https://github.com/estree/estree/issues/146
def("OptionalMemberExpression")
.bases("MemberExpression")
.build("object", "property", "computed", "optional")
.field("optional", Boolean, defaults["true"]);
// a?.b()
def("OptionalCallExpression")
.bases("CallExpression")
.build("callee", "arguments", "optional")
.field("optional", Boolean, defaults["true"]);
// https://github.com/tc39/proposal-nullish-coalescing
// `a ?? b` as per https://github.com/babel/babylon/pull/761/files
var LogicalOperator = or("||", "&&", "??");
def("LogicalExpression")
.field("operator", LogicalOperator);
}
exports.default = default_1;
module.exports = exports["default"];

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node_modules/ast-types/def/es2020.d.ts generated vendored Normal file
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import { Fork } from "../types";
export default function (fork: Fork): void;

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node_modules/ast-types/def/es2020.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var es7_1 = tslib_1.__importDefault(require("./es7"));
var types_1 = tslib_1.__importDefault(require("../lib/types"));
function default_1(fork) {
fork.use(es7_1.default);
var types = fork.use(types_1.default);
var def = types.Type.def;
def("ImportExpression")
.bases("Expression")
.build("source")
.field("source", def("Expression"));
}
exports.default = default_1;
module.exports = exports["default"];

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node_modules/ast-types/def/es6.d.ts generated vendored Normal file
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import { Fork } from "../types";
export default function (fork: Fork): void;

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node_modules/ast-types/def/es6.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var core_1 = tslib_1.__importDefault(require("./core"));
var types_1 = tslib_1.__importDefault(require("../lib/types"));
var shared_1 = tslib_1.__importDefault(require("../lib/shared"));
function default_1(fork) {
fork.use(core_1.default);
var types = fork.use(types_1.default);
var def = types.Type.def;
var or = types.Type.or;
var defaults = fork.use(shared_1.default).defaults;
def("Function")
.field("generator", Boolean, defaults["false"])
.field("expression", Boolean, defaults["false"])
.field("defaults", [or(def("Expression"), null)], defaults.emptyArray)
// TODO This could be represented as a RestElement in .params.
.field("rest", or(def("Identifier"), null), defaults["null"]);
// The ESTree way of representing a ...rest parameter.
def("RestElement")
.bases("Pattern")
.build("argument")
.field("argument", def("Pattern"))
.field("typeAnnotation", // for Babylon. Flow parser puts it on the identifier
or(def("TypeAnnotation"), def("TSTypeAnnotation"), null), defaults["null"]);
def("SpreadElementPattern")
.bases("Pattern")
.build("argument")
.field("argument", def("Pattern"));
def("FunctionDeclaration")
.build("id", "params", "body", "generator", "expression");
def("FunctionExpression")
.build("id", "params", "body", "generator", "expression");
// The Parser API calls this ArrowExpression, but Esprima and all other
// actual parsers use ArrowFunctionExpression.
def("ArrowFunctionExpression")
.bases("Function", "Expression")
.build("params", "body", "expression")
// The forced null value here is compatible with the overridden
// definition of the "id" field in the Function interface.
.field("id", null, defaults["null"])
// Arrow function bodies are allowed to be expressions.
.field("body", or(def("BlockStatement"), def("Expression")))
// The current spec forbids arrow generators, so I have taken the
// liberty of enforcing that. TODO Report this.
.field("generator", false, defaults["false"]);
def("ForOfStatement")
.bases("Statement")
.build("left", "right", "body")
.field("left", or(def("VariableDeclaration"), def("Pattern")))
.field("right", def("Expression"))
.field("body", def("Statement"));
def("YieldExpression")
.bases("Expression")
.build("argument", "delegate")
.field("argument", or(def("Expression"), null))
.field("delegate", Boolean, defaults["false"]);
def("GeneratorExpression")
.bases("Expression")
.build("body", "blocks", "filter")
.field("body", def("Expression"))
.field("blocks", [def("ComprehensionBlock")])
.field("filter", or(def("Expression"), null));
def("ComprehensionExpression")
.bases("Expression")
.build("body", "blocks", "filter")
.field("body", def("Expression"))
.field("blocks", [def("ComprehensionBlock")])
.field("filter", or(def("Expression"), null));
def("ComprehensionBlock")
.bases("Node")
.build("left", "right", "each")
.field("left", def("Pattern"))
.field("right", def("Expression"))
.field("each", Boolean);
def("Property")
.field("key", or(def("Literal"), def("Identifier"), def("Expression")))
.field("value", or(def("Expression"), def("Pattern")))
.field("method", Boolean, defaults["false"])
.field("shorthand", Boolean, defaults["false"])
.field("computed", Boolean, defaults["false"]);
def("ObjectProperty")
.field("shorthand", Boolean, defaults["false"]);
def("PropertyPattern")
.bases("Pattern")
.build("key", "pattern")
.field("key", or(def("Literal"), def("Identifier"), def("Expression")))
.field("pattern", def("Pattern"))
.field("computed", Boolean, defaults["false"]);
def("ObjectPattern")
.bases("Pattern")
.build("properties")
.field("properties", [or(def("PropertyPattern"), def("Property"))]);
def("ArrayPattern")
.bases("Pattern")
.build("elements")
.field("elements", [or(def("Pattern"), null)]);
def("MethodDefinition")
.bases("Declaration")
.build("kind", "key", "value", "static")
.field("kind", or("constructor", "method", "get", "set"))
.field("key", def("Expression"))
.field("value", def("Function"))
.field("computed", Boolean, defaults["false"])
.field("static", Boolean, defaults["false"]);
def("SpreadElement")
.bases("Node")
.build("argument")
.field("argument", def("Expression"));
def("ArrayExpression")
.field("elements", [or(def("Expression"), def("SpreadElement"), def("RestElement"), null)]);
def("NewExpression")
.field("arguments", [or(def("Expression"), def("SpreadElement"))]);
def("CallExpression")
.field("arguments", [or(def("Expression"), def("SpreadElement"))]);
// Note: this node type is *not* an AssignmentExpression with a Pattern on
// the left-hand side! The existing AssignmentExpression type already
// supports destructuring assignments. AssignmentPattern nodes may appear
// wherever a Pattern is allowed, and the right-hand side represents a
// default value to be destructured against the left-hand side, if no
// value is otherwise provided. For example: default parameter values.
def("AssignmentPattern")
.bases("Pattern")
.build("left", "right")
.field("left", def("Pattern"))
.field("right", def("Expression"));
var ClassBodyElement = or(def("MethodDefinition"), def("VariableDeclarator"), def("ClassPropertyDefinition"), def("ClassProperty"));
def("ClassProperty")
.bases("Declaration")
.build("key")
.field("key", or(def("Literal"), def("Identifier"), def("Expression")))
.field("computed", Boolean, defaults["false"]);
def("ClassPropertyDefinition") // static property
.bases("Declaration")
.build("definition")
// Yes, Virginia, circular definitions are permitted.
.field("definition", ClassBodyElement);
def("ClassBody")
.bases("Declaration")
.build("body")
.field("body", [ClassBodyElement]);
def("ClassDeclaration")
.bases("Declaration")
.build("id", "body", "superClass")
.field("id", or(def("Identifier"), null))
.field("body", def("ClassBody"))
.field("superClass", or(def("Expression"), null), defaults["null"]);
def("ClassExpression")
.bases("Expression")
.build("id", "body", "superClass")
.field("id", or(def("Identifier"), null), defaults["null"])
.field("body", def("ClassBody"))
.field("superClass", or(def("Expression"), null), defaults["null"]);
// Specifier and ModuleSpecifier are abstract non-standard types
// introduced for definitional convenience.
def("Specifier").bases("Node");
// This supertype is shared/abused by both def/babel.js and
// def/esprima.js. In the future, it will be possible to load only one set
// of definitions appropriate for a given parser, but until then we must
// rely on default functions to reconcile the conflicting AST formats.
def("ModuleSpecifier")
.bases("Specifier")
// This local field is used by Babel/Acorn. It should not technically
// be optional in the Babel/Acorn AST format, but it must be optional
// in the Esprima AST format.
.field("local", or(def("Identifier"), null), defaults["null"])
// The id and name fields are used by Esprima. The id field should not
// technically be optional in the Esprima AST format, but it must be
// optional in the Babel/Acorn AST format.
.field("id", or(def("Identifier"), null), defaults["null"])
.field("name", or(def("Identifier"), null), defaults["null"]);
// Like ModuleSpecifier, except type:"ImportSpecifier" and buildable.
// import {<id [as name]>} from ...;
def("ImportSpecifier")
.bases("ModuleSpecifier")
.build("id", "name");
// import <* as id> from ...;
def("ImportNamespaceSpecifier")
.bases("ModuleSpecifier")
.build("id");
// import <id> from ...;
def("ImportDefaultSpecifier")
.bases("ModuleSpecifier")
.build("id");
def("ImportDeclaration")
.bases("Declaration")
.build("specifiers", "source", "importKind")
.field("specifiers", [or(def("ImportSpecifier"), def("ImportNamespaceSpecifier"), def("ImportDefaultSpecifier"))], defaults.emptyArray)
.field("source", def("Literal"))
.field("importKind", or("value", "type"), function () {
return "value";
});
def("TaggedTemplateExpression")
.bases("Expression")
.build("tag", "quasi")
.field("tag", def("Expression"))
.field("quasi", def("TemplateLiteral"));
def("TemplateLiteral")
.bases("Expression")
.build("quasis", "expressions")
.field("quasis", [def("TemplateElement")])
.field("expressions", [def("Expression")]);
def("TemplateElement")
.bases("Node")
.build("value", "tail")
.field("value", { "cooked": String, "raw": String })
.field("tail", Boolean);
}
exports.default = default_1;
module.exports = exports["default"];

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node_modules/ast-types/def/es7.d.ts generated vendored Normal file
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import { Fork } from "../types";
export default function (fork: Fork): void;

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node_modules/ast-types/def/es7.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var es6_1 = tslib_1.__importDefault(require("./es6"));
var types_1 = tslib_1.__importDefault(require("../lib/types"));
var shared_1 = tslib_1.__importDefault(require("../lib/shared"));
function default_1(fork) {
fork.use(es6_1.default);
var types = fork.use(types_1.default);
var def = types.Type.def;
var or = types.Type.or;
var defaults = fork.use(shared_1.default).defaults;
def("Function")
.field("async", Boolean, defaults["false"]);
def("SpreadProperty")
.bases("Node")
.build("argument")
.field("argument", def("Expression"));
def("ObjectExpression")
.field("properties", [or(def("Property"), def("SpreadProperty"), def("SpreadElement"))]);
def("SpreadPropertyPattern")
.bases("Pattern")
.build("argument")
.field("argument", def("Pattern"));
def("ObjectPattern")
.field("properties", [or(def("Property"), def("PropertyPattern"), def("SpreadPropertyPattern"))]);
def("AwaitExpression")
.bases("Expression")
.build("argument", "all")
.field("argument", or(def("Expression"), null))
.field("all", Boolean, defaults["false"]);
}
exports.default = default_1;
module.exports = exports["default"];

2
node_modules/ast-types/def/esprima.d.ts generated vendored Normal file
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import { Fork } from "../types";
export default function (fork: Fork): void;

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node_modules/ast-types/def/esprima.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var es7_1 = tslib_1.__importDefault(require("./es7"));
var types_1 = tslib_1.__importDefault(require("../lib/types"));
var shared_1 = tslib_1.__importDefault(require("../lib/shared"));
function default_1(fork) {
fork.use(es7_1.default);
var types = fork.use(types_1.default);
var defaults = fork.use(shared_1.default).defaults;
var def = types.Type.def;
var or = types.Type.or;
def("VariableDeclaration")
.field("declarations", [or(def("VariableDeclarator"), def("Identifier") // Esprima deviation.
)]);
def("Property")
.field("value", or(def("Expression"), def("Pattern") // Esprima deviation.
));
def("ArrayPattern")
.field("elements", [or(def("Pattern"), def("SpreadElement"), null)]);
def("ObjectPattern")
.field("properties", [or(def("Property"), def("PropertyPattern"), def("SpreadPropertyPattern"), def("SpreadProperty") // Used by Esprima.
)]);
// Like ModuleSpecifier, except type:"ExportSpecifier" and buildable.
// export {<id [as name]>} [from ...];
def("ExportSpecifier")
.bases("ModuleSpecifier")
.build("id", "name");
// export <*> from ...;
def("ExportBatchSpecifier")
.bases("Specifier")
.build();
def("ExportDeclaration")
.bases("Declaration")
.build("default", "declaration", "specifiers", "source")
.field("default", Boolean)
.field("declaration", or(def("Declaration"), def("Expression"), // Implies default.
null))
.field("specifiers", [or(def("ExportSpecifier"), def("ExportBatchSpecifier"))], defaults.emptyArray)
.field("source", or(def("Literal"), null), defaults["null"]);
def("Block")
.bases("Comment")
.build("value", /*optional:*/ "leading", "trailing");
def("Line")
.bases("Comment")
.build("value", /*optional:*/ "leading", "trailing");
}
exports.default = default_1;
module.exports = exports["default"];

2
node_modules/ast-types/def/flow.d.ts generated vendored Normal file
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import { Fork } from "../types";
export default function (fork: Fork): void;

292
node_modules/ast-types/def/flow.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var es7_1 = tslib_1.__importDefault(require("./es7"));
var type_annotations_1 = tslib_1.__importDefault(require("./type-annotations"));
var types_1 = tslib_1.__importDefault(require("../lib/types"));
var shared_1 = tslib_1.__importDefault(require("../lib/shared"));
function default_1(fork) {
fork.use(es7_1.default);
fork.use(type_annotations_1.default);
var types = fork.use(types_1.default);
var def = types.Type.def;
var or = types.Type.or;
var defaults = fork.use(shared_1.default).defaults;
// Base types
def("Flow").bases("Node");
def("FlowType").bases("Flow");
// Type annotations
def("AnyTypeAnnotation")
.bases("FlowType")
.build();
def("EmptyTypeAnnotation")
.bases("FlowType")
.build();
def("MixedTypeAnnotation")
.bases("FlowType")
.build();
def("VoidTypeAnnotation")
.bases("FlowType")
.build();
def("NumberTypeAnnotation")
.bases("FlowType")
.build();
def("NumberLiteralTypeAnnotation")
.bases("FlowType")
.build("value", "raw")
.field("value", Number)
.field("raw", String);
// Babylon 6 differs in AST from Flow
// same as NumberLiteralTypeAnnotation
def("NumericLiteralTypeAnnotation")
.bases("FlowType")
.build("value", "raw")
.field("value", Number)
.field("raw", String);
def("StringTypeAnnotation")
.bases("FlowType")
.build();
def("StringLiteralTypeAnnotation")
.bases("FlowType")
.build("value", "raw")
.field("value", String)
.field("raw", String);
def("BooleanTypeAnnotation")
.bases("FlowType")
.build();
def("BooleanLiteralTypeAnnotation")
.bases("FlowType")
.build("value", "raw")
.field("value", Boolean)
.field("raw", String);
def("TypeAnnotation")
.bases("Node")
.build("typeAnnotation")
.field("typeAnnotation", def("FlowType"));
def("NullableTypeAnnotation")
.bases("FlowType")
.build("typeAnnotation")
.field("typeAnnotation", def("FlowType"));
def("NullLiteralTypeAnnotation")
.bases("FlowType")
.build();
def("NullTypeAnnotation")
.bases("FlowType")
.build();
def("ThisTypeAnnotation")
.bases("FlowType")
.build();
def("ExistsTypeAnnotation")
.bases("FlowType")
.build();
def("ExistentialTypeParam")
.bases("FlowType")
.build();
def("FunctionTypeAnnotation")
.bases("FlowType")
.build("params", "returnType", "rest", "typeParameters")
.field("params", [def("FunctionTypeParam")])
.field("returnType", def("FlowType"))
.field("rest", or(def("FunctionTypeParam"), null))
.field("typeParameters", or(def("TypeParameterDeclaration"), null));
def("FunctionTypeParam")
.bases("Node")
.build("name", "typeAnnotation", "optional")
.field("name", def("Identifier"))
.field("typeAnnotation", def("FlowType"))
.field("optional", Boolean);
def("ArrayTypeAnnotation")
.bases("FlowType")
.build("elementType")
.field("elementType", def("FlowType"));
def("ObjectTypeAnnotation")
.bases("FlowType")
.build("properties", "indexers", "callProperties")
.field("properties", [
or(def("ObjectTypeProperty"), def("ObjectTypeSpreadProperty"))
])
.field("indexers", [def("ObjectTypeIndexer")], defaults.emptyArray)
.field("callProperties", [def("ObjectTypeCallProperty")], defaults.emptyArray)
.field("inexact", or(Boolean, void 0), defaults["undefined"])
.field("exact", Boolean, defaults["false"])
.field("internalSlots", [def("ObjectTypeInternalSlot")], defaults.emptyArray);
def("Variance")
.bases("Node")
.build("kind")
.field("kind", or("plus", "minus"));
var LegacyVariance = or(def("Variance"), "plus", "minus", null);
def("ObjectTypeProperty")
.bases("Node")
.build("key", "value", "optional")
.field("key", or(def("Literal"), def("Identifier")))
.field("value", def("FlowType"))
.field("optional", Boolean)
.field("variance", LegacyVariance, defaults["null"]);
def("ObjectTypeIndexer")
.bases("Node")
.build("id", "key", "value")
.field("id", def("Identifier"))
.field("key", def("FlowType"))
.field("value", def("FlowType"))
.field("variance", LegacyVariance, defaults["null"]);
def("ObjectTypeCallProperty")
.bases("Node")
.build("value")
.field("value", def("FunctionTypeAnnotation"))
.field("static", Boolean, defaults["false"]);
def("QualifiedTypeIdentifier")
.bases("Node")
.build("qualification", "id")
.field("qualification", or(def("Identifier"), def("QualifiedTypeIdentifier")))
.field("id", def("Identifier"));
def("GenericTypeAnnotation")
.bases("FlowType")
.build("id", "typeParameters")
.field("id", or(def("Identifier"), def("QualifiedTypeIdentifier")))
.field("typeParameters", or(def("TypeParameterInstantiation"), null));
def("MemberTypeAnnotation")
.bases("FlowType")
.build("object", "property")
.field("object", def("Identifier"))
.field("property", or(def("MemberTypeAnnotation"), def("GenericTypeAnnotation")));
def("UnionTypeAnnotation")
.bases("FlowType")
.build("types")
.field("types", [def("FlowType")]);
def("IntersectionTypeAnnotation")
.bases("FlowType")
.build("types")
.field("types", [def("FlowType")]);
def("TypeofTypeAnnotation")
.bases("FlowType")
.build("argument")
.field("argument", def("FlowType"));
def("ObjectTypeSpreadProperty")
.bases("Node")
.build("argument")
.field("argument", def("FlowType"));
def("ObjectTypeInternalSlot")
.bases("Node")
.build("id", "value", "optional", "static", "method")
.field("id", def("Identifier"))
.field("value", def("FlowType"))
.field("optional", Boolean)
.field("static", Boolean)
.field("method", Boolean);
def("TypeParameterDeclaration")
.bases("Node")
.build("params")
.field("params", [def("TypeParameter")]);
def("TypeParameterInstantiation")
.bases("Node")
.build("params")
.field("params", [def("FlowType")]);
def("TypeParameter")
.bases("FlowType")
.build("name", "variance", "bound")
.field("name", String)
.field("variance", LegacyVariance, defaults["null"])
.field("bound", or(def("TypeAnnotation"), null), defaults["null"]);
def("ClassProperty")
.field("variance", LegacyVariance, defaults["null"]);
def("ClassImplements")
.bases("Node")
.build("id")
.field("id", def("Identifier"))
.field("superClass", or(def("Expression"), null), defaults["null"])
.field("typeParameters", or(def("TypeParameterInstantiation"), null), defaults["null"]);
def("InterfaceTypeAnnotation")
.bases("FlowType")
.build("body", "extends")
.field("body", def("ObjectTypeAnnotation"))
.field("extends", or([def("InterfaceExtends")], null), defaults["null"]);
def("InterfaceDeclaration")
.bases("Declaration")
.build("id", "body", "extends")
.field("id", def("Identifier"))
.field("typeParameters", or(def("TypeParameterDeclaration"), null), defaults["null"])
.field("body", def("ObjectTypeAnnotation"))
.field("extends", [def("InterfaceExtends")]);
def("DeclareInterface")
.bases("InterfaceDeclaration")
.build("id", "body", "extends");
def("InterfaceExtends")
.bases("Node")
.build("id")
.field("id", def("Identifier"))
.field("typeParameters", or(def("TypeParameterInstantiation"), null), defaults["null"]);
def("TypeAlias")
.bases("Declaration")
.build("id", "typeParameters", "right")
.field("id", def("Identifier"))
.field("typeParameters", or(def("TypeParameterDeclaration"), null))
.field("right", def("FlowType"));
def("OpaqueType")
.bases("Declaration")
.build("id", "typeParameters", "impltype", "supertype")
.field("id", def("Identifier"))
.field("typeParameters", or(def("TypeParameterDeclaration"), null))
.field("impltype", def("FlowType"))
.field("supertype", def("FlowType"));
def("DeclareTypeAlias")
.bases("TypeAlias")
.build("id", "typeParameters", "right");
def("DeclareOpaqueType")
.bases("TypeAlias")
.build("id", "typeParameters", "supertype");
def("TypeCastExpression")
.bases("Expression")
.build("expression", "typeAnnotation")
.field("expression", def("Expression"))
.field("typeAnnotation", def("TypeAnnotation"));
def("TupleTypeAnnotation")
.bases("FlowType")
.build("types")
.field("types", [def("FlowType")]);
def("DeclareVariable")
.bases("Statement")
.build("id")
.field("id", def("Identifier"));
def("DeclareFunction")
.bases("Statement")
.build("id")
.field("id", def("Identifier"));
def("DeclareClass")
.bases("InterfaceDeclaration")
.build("id");
def("DeclareModule")
.bases("Statement")
.build("id", "body")
.field("id", or(def("Identifier"), def("Literal")))
.field("body", def("BlockStatement"));
def("DeclareModuleExports")
.bases("Statement")
.build("typeAnnotation")
.field("typeAnnotation", def("TypeAnnotation"));
def("DeclareExportDeclaration")
.bases("Declaration")
.build("default", "declaration", "specifiers", "source")
.field("default", Boolean)
.field("declaration", or(def("DeclareVariable"), def("DeclareFunction"), def("DeclareClass"), def("FlowType"), // Implies default.
null))
.field("specifiers", [or(def("ExportSpecifier"), def("ExportBatchSpecifier"))], defaults.emptyArray)
.field("source", or(def("Literal"), null), defaults["null"]);
def("DeclareExportAllDeclaration")
.bases("Declaration")
.build("source")
.field("source", or(def("Literal"), null), defaults["null"]);
def("FlowPredicate").bases("Flow");
def("InferredPredicate")
.bases("FlowPredicate")
.build();
def("DeclaredPredicate")
.bases("FlowPredicate")
.build("value")
.field("value", def("Expression"));
def("CallExpression")
.field("typeArguments", or(null, def("TypeParameterInstantiation")), defaults["null"]);
def("NewExpression")
.field("typeArguments", or(null, def("TypeParameterInstantiation")), defaults["null"]);
}
exports.default = default_1;
module.exports = exports["default"];

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node_modules/ast-types/def/jsx.d.ts generated vendored Normal file
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import { Fork } from "../types";
export default function (fork: Fork): void;

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node_modules/ast-types/def/jsx.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var es7_1 = tslib_1.__importDefault(require("./es7"));
var types_1 = tslib_1.__importDefault(require("../lib/types"));
var shared_1 = tslib_1.__importDefault(require("../lib/shared"));
function default_1(fork) {
fork.use(es7_1.default);
var types = fork.use(types_1.default);
var def = types.Type.def;
var or = types.Type.or;
var defaults = fork.use(shared_1.default).defaults;
def("JSXAttribute")
.bases("Node")
.build("name", "value")
.field("name", or(def("JSXIdentifier"), def("JSXNamespacedName")))
.field("value", or(def("Literal"), // attr="value"
def("JSXExpressionContainer"), // attr={value}
null // attr= or just attr
), defaults["null"]);
def("JSXIdentifier")
.bases("Identifier")
.build("name")
.field("name", String);
def("JSXNamespacedName")
.bases("Node")
.build("namespace", "name")
.field("namespace", def("JSXIdentifier"))
.field("name", def("JSXIdentifier"));
def("JSXMemberExpression")
.bases("MemberExpression")
.build("object", "property")
.field("object", or(def("JSXIdentifier"), def("JSXMemberExpression")))
.field("property", def("JSXIdentifier"))
.field("computed", Boolean, defaults.false);
var JSXElementName = or(def("JSXIdentifier"), def("JSXNamespacedName"), def("JSXMemberExpression"));
def("JSXSpreadAttribute")
.bases("Node")
.build("argument")
.field("argument", def("Expression"));
var JSXAttributes = [or(def("JSXAttribute"), def("JSXSpreadAttribute"))];
def("JSXExpressionContainer")
.bases("Expression")
.build("expression")
.field("expression", def("Expression"));
def("JSXElement")
.bases("Expression")
.build("openingElement", "closingElement", "children")
.field("openingElement", def("JSXOpeningElement"))
.field("closingElement", or(def("JSXClosingElement"), null), defaults["null"])
.field("children", [or(def("JSXElement"), def("JSXExpressionContainer"), def("JSXFragment"), def("JSXText"), def("Literal") // TODO Esprima should return JSXText instead.
)], defaults.emptyArray)
.field("name", JSXElementName, function () {
// Little-known fact: the `this` object inside a default function
// is none other than the partially-built object itself, and any
// fields initialized directly from builder function arguments
// (like openingElement, closingElement, and children) are
// guaranteed to be available.
return this.openingElement.name;
}, true) // hidden from traversal
.field("selfClosing", Boolean, function () {
return this.openingElement.selfClosing;
}, true) // hidden from traversal
.field("attributes", JSXAttributes, function () {
return this.openingElement.attributes;
}, true); // hidden from traversal
def("JSXOpeningElement")
.bases("Node") // TODO Does this make sense? Can't really be an JSXElement.
.build("name", "attributes", "selfClosing")
.field("name", JSXElementName)
.field("attributes", JSXAttributes, defaults.emptyArray)
.field("selfClosing", Boolean, defaults["false"]);
def("JSXClosingElement")
.bases("Node") // TODO Same concern.
.build("name")
.field("name", JSXElementName);
def("JSXFragment")
.bases("Expression")
.build("openingElement", "closingElement", "children")
.field("openingElement", def("JSXOpeningFragment"))
.field("closingElement", def("JSXClosingFragment"))
.field("children", [or(def("JSXElement"), def("JSXExpressionContainer"), def("JSXFragment"), def("JSXText"), def("Literal") // TODO Esprima should return JSXText instead.
)], defaults.emptyArray);
def("JSXOpeningFragment")
.bases("Node") // TODO Same concern.
.build();
def("JSXClosingFragment")
.bases("Node") // TODO Same concern.
.build();
def("JSXText")
.bases("Literal")
.build("value")
.field("value", String);
def("JSXEmptyExpression").bases("Expression").build();
// This PR has caused many people issues, but supporting it seems like a
// good idea anyway: https://github.com/babel/babel/pull/4988
def("JSXSpreadChild")
.bases("Expression")
.build("expression")
.field("expression", def("Expression"));
}
exports.default = default_1;
module.exports = exports["default"];

7
node_modules/ast-types/def/type-annotations.d.ts generated vendored Normal file
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/**
* Type annotation defs shared between Flow and TypeScript.
* These defs could not be defined in ./flow.ts or ./typescript.ts directly
* because they use the same name.
*/
import { Fork } from "../types";
export default function (fork: Fork): void;

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node_modules/ast-types/def/type-annotations.js generated vendored Normal file
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"use strict";;
/**
* Type annotation defs shared between Flow and TypeScript.
* These defs could not be defined in ./flow.ts or ./typescript.ts directly
* because they use the same name.
*/
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var types_1 = tslib_1.__importDefault(require("../lib/types"));
var shared_1 = tslib_1.__importDefault(require("../lib/shared"));
function default_1(fork) {
var types = fork.use(types_1.default);
var def = types.Type.def;
var or = types.Type.or;
var defaults = fork.use(shared_1.default).defaults;
var TypeAnnotation = or(def("TypeAnnotation"), def("TSTypeAnnotation"), null);
var TypeParamDecl = or(def("TypeParameterDeclaration"), def("TSTypeParameterDeclaration"), null);
def("Identifier")
.field("typeAnnotation", TypeAnnotation, defaults["null"]);
def("ObjectPattern")
.field("typeAnnotation", TypeAnnotation, defaults["null"]);
def("Function")
.field("returnType", TypeAnnotation, defaults["null"])
.field("typeParameters", TypeParamDecl, defaults["null"]);
def("ClassProperty")
.build("key", "value", "typeAnnotation", "static")
.field("value", or(def("Expression"), null))
.field("static", Boolean, defaults["false"])
.field("typeAnnotation", TypeAnnotation, defaults["null"]);
["ClassDeclaration",
"ClassExpression",
].forEach(function (typeName) {
def(typeName)
.field("typeParameters", TypeParamDecl, defaults["null"])
.field("superTypeParameters", or(def("TypeParameterInstantiation"), def("TSTypeParameterInstantiation"), null), defaults["null"])
.field("implements", or([def("ClassImplements")], [def("TSExpressionWithTypeArguments")]), defaults.emptyArray);
});
}
exports.default = default_1;
module.exports = exports["default"];

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node_modules/ast-types/def/typescript.d.ts generated vendored Normal file
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import { Fork } from "../types";
export default function (fork: Fork): void;

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node_modules/ast-types/def/typescript.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var babel_core_1 = tslib_1.__importDefault(require("./babel-core"));
var type_annotations_1 = tslib_1.__importDefault(require("./type-annotations"));
var types_1 = tslib_1.__importDefault(require("../lib/types"));
var shared_1 = tslib_1.__importDefault(require("../lib/shared"));
function default_1(fork) {
// Since TypeScript is parsed by Babylon, include the core Babylon types
// but omit the Flow-related types.
fork.use(babel_core_1.default);
fork.use(type_annotations_1.default);
var types = fork.use(types_1.default);
var n = types.namedTypes;
var def = types.Type.def;
var or = types.Type.or;
var defaults = fork.use(shared_1.default).defaults;
var StringLiteral = types.Type.from(function (value, deep) {
if (n.StringLiteral &&
n.StringLiteral.check(value, deep)) {
return true;
}
if (n.Literal &&
n.Literal.check(value, deep) &&
typeof value.value === "string") {
return true;
}
return false;
}, "StringLiteral");
def("TSType")
.bases("Node");
var TSEntityName = or(def("Identifier"), def("TSQualifiedName"));
def("TSTypeReference")
.bases("TSType", "TSHasOptionalTypeParameterInstantiation")
.build("typeName", "typeParameters")
.field("typeName", TSEntityName);
// An abstract (non-buildable) base type that provide a commonly-needed
// optional .typeParameters field.
def("TSHasOptionalTypeParameterInstantiation")
.field("typeParameters", or(def("TSTypeParameterInstantiation"), null), defaults["null"]);
// An abstract (non-buildable) base type that provide a commonly-needed
// optional .typeParameters field.
def("TSHasOptionalTypeParameters")
.field("typeParameters", or(def("TSTypeParameterDeclaration"), null, void 0), defaults["null"]);
// An abstract (non-buildable) base type that provide a commonly-needed
// optional .typeAnnotation field.
def("TSHasOptionalTypeAnnotation")
.field("typeAnnotation", or(def("TSTypeAnnotation"), null), defaults["null"]);
def("TSQualifiedName")
.bases("Node")
.build("left", "right")
.field("left", TSEntityName)
.field("right", TSEntityName);
def("TSAsExpression")
.bases("Expression", "Pattern")
.build("expression", "typeAnnotation")
.field("expression", def("Expression"))
.field("typeAnnotation", def("TSType"))
.field("extra", or({ parenthesized: Boolean }, null), defaults["null"]);
def("TSNonNullExpression")
.bases("Expression", "Pattern")
.build("expression")
.field("expression", def("Expression"));
[
"TSAnyKeyword",
"TSBigIntKeyword",
"TSBooleanKeyword",
"TSNeverKeyword",
"TSNullKeyword",
"TSNumberKeyword",
"TSObjectKeyword",
"TSStringKeyword",
"TSSymbolKeyword",
"TSUndefinedKeyword",
"TSUnknownKeyword",
"TSVoidKeyword",
"TSThisType",
].forEach(function (keywordType) {
def(keywordType)
.bases("TSType")
.build();
});
def("TSArrayType")
.bases("TSType")
.build("elementType")
.field("elementType", def("TSType"));
def("TSLiteralType")
.bases("TSType")
.build("literal")
.field("literal", or(def("NumericLiteral"), def("StringLiteral"), def("BooleanLiteral"), def("TemplateLiteral"), def("UnaryExpression")));
["TSUnionType",
"TSIntersectionType",
].forEach(function (typeName) {
def(typeName)
.bases("TSType")
.build("types")
.field("types", [def("TSType")]);
});
def("TSConditionalType")
.bases("TSType")
.build("checkType", "extendsType", "trueType", "falseType")
.field("checkType", def("TSType"))
.field("extendsType", def("TSType"))
.field("trueType", def("TSType"))
.field("falseType", def("TSType"));
def("TSInferType")
.bases("TSType")
.build("typeParameter")
.field("typeParameter", def("TSTypeParameter"));
def("TSParenthesizedType")
.bases("TSType")
.build("typeAnnotation")
.field("typeAnnotation", def("TSType"));
var ParametersType = [or(def("Identifier"), def("RestElement"), def("ArrayPattern"), def("ObjectPattern"))];
["TSFunctionType",
"TSConstructorType",
].forEach(function (typeName) {
def(typeName)
.bases("TSType", "TSHasOptionalTypeParameters", "TSHasOptionalTypeAnnotation")
.build("parameters")
.field("parameters", ParametersType);
});
def("TSDeclareFunction")
.bases("Declaration", "TSHasOptionalTypeParameters")
.build("id", "params", "returnType")
.field("declare", Boolean, defaults["false"])
.field("async", Boolean, defaults["false"])
.field("generator", Boolean, defaults["false"])
.field("id", or(def("Identifier"), null), defaults["null"])
.field("params", [def("Pattern")])
// tSFunctionTypeAnnotationCommon
.field("returnType", or(def("TSTypeAnnotation"), def("Noop"), // Still used?
null), defaults["null"]);
def("TSDeclareMethod")
.bases("Declaration", "TSHasOptionalTypeParameters")
.build("key", "params", "returnType")
.field("async", Boolean, defaults["false"])
.field("generator", Boolean, defaults["false"])
.field("params", [def("Pattern")])
// classMethodOrPropertyCommon
.field("abstract", Boolean, defaults["false"])
.field("accessibility", or("public", "private", "protected", void 0), defaults["undefined"])
.field("static", Boolean, defaults["false"])
.field("computed", Boolean, defaults["false"])
.field("optional", Boolean, defaults["false"])
.field("key", or(def("Identifier"), def("StringLiteral"), def("NumericLiteral"),
// Only allowed if .computed is true.
def("Expression")))
// classMethodOrDeclareMethodCommon
.field("kind", or("get", "set", "method", "constructor"), function getDefault() { return "method"; })
.field("access", // Not "accessibility"?
or("public", "private", "protected", void 0), defaults["undefined"])
.field("decorators", or([def("Decorator")], null), defaults["null"])
// tSFunctionTypeAnnotationCommon
.field("returnType", or(def("TSTypeAnnotation"), def("Noop"), // Still used?
null), defaults["null"]);
def("TSMappedType")
.bases("TSType")
.build("typeParameter", "typeAnnotation")
.field("readonly", or(Boolean, "+", "-"), defaults["false"])
.field("typeParameter", def("TSTypeParameter"))
.field("optional", or(Boolean, "+", "-"), defaults["false"])
.field("typeAnnotation", or(def("TSType"), null), defaults["null"]);
def("TSTupleType")
.bases("TSType")
.build("elementTypes")
.field("elementTypes", [or(def("TSType"), def("TSNamedTupleMember"))]);
def("TSNamedTupleMember")
.bases("TSType")
.build("label", "elementType", "optional")
.field("label", def("Identifier"))
.field("optional", Boolean, defaults["false"])
.field("elementType", def("TSType"));
def("TSRestType")
.bases("TSType")
.build("typeAnnotation")
.field("typeAnnotation", def("TSType"));
def("TSOptionalType")
.bases("TSType")
.build("typeAnnotation")
.field("typeAnnotation", def("TSType"));
def("TSIndexedAccessType")
.bases("TSType")
.build("objectType", "indexType")
.field("objectType", def("TSType"))
.field("indexType", def("TSType"));
def("TSTypeOperator")
.bases("TSType")
.build("operator")
.field("operator", String)
.field("typeAnnotation", def("TSType"));
def("TSTypeAnnotation")
.bases("Node")
.build("typeAnnotation")
.field("typeAnnotation", or(def("TSType"), def("TSTypeAnnotation")));
def("TSIndexSignature")
.bases("Declaration", "TSHasOptionalTypeAnnotation")
.build("parameters", "typeAnnotation")
.field("parameters", [def("Identifier")]) // Length === 1
.field("readonly", Boolean, defaults["false"]);
def("TSPropertySignature")
.bases("Declaration", "TSHasOptionalTypeAnnotation")
.build("key", "typeAnnotation", "optional")
.field("key", def("Expression"))
.field("computed", Boolean, defaults["false"])
.field("readonly", Boolean, defaults["false"])
.field("optional", Boolean, defaults["false"])
.field("initializer", or(def("Expression"), null), defaults["null"]);
def("TSMethodSignature")
.bases("Declaration", "TSHasOptionalTypeParameters", "TSHasOptionalTypeAnnotation")
.build("key", "parameters", "typeAnnotation")
.field("key", def("Expression"))
.field("computed", Boolean, defaults["false"])
.field("optional", Boolean, defaults["false"])
.field("parameters", ParametersType);
def("TSTypePredicate")
.bases("TSTypeAnnotation", "TSType")
.build("parameterName", "typeAnnotation", "asserts")
.field("parameterName", or(def("Identifier"), def("TSThisType")))
.field("typeAnnotation", or(def("TSTypeAnnotation"), null), defaults["null"])
.field("asserts", Boolean, defaults["false"]);
["TSCallSignatureDeclaration",
"TSConstructSignatureDeclaration",
].forEach(function (typeName) {
def(typeName)
.bases("Declaration", "TSHasOptionalTypeParameters", "TSHasOptionalTypeAnnotation")
.build("parameters", "typeAnnotation")
.field("parameters", ParametersType);
});
def("TSEnumMember")
.bases("Node")
.build("id", "initializer")
.field("id", or(def("Identifier"), StringLiteral))
.field("initializer", or(def("Expression"), null), defaults["null"]);
def("TSTypeQuery")
.bases("TSType")
.build("exprName")
.field("exprName", or(TSEntityName, def("TSImportType")));
// Inferred from Babylon's tsParseTypeMember method.
var TSTypeMember = or(def("TSCallSignatureDeclaration"), def("TSConstructSignatureDeclaration"), def("TSIndexSignature"), def("TSMethodSignature"), def("TSPropertySignature"));
def("TSTypeLiteral")
.bases("TSType")
.build("members")
.field("members", [TSTypeMember]);
def("TSTypeParameter")
.bases("Identifier")
.build("name", "constraint", "default")
.field("name", String)
.field("constraint", or(def("TSType"), void 0), defaults["undefined"])
.field("default", or(def("TSType"), void 0), defaults["undefined"]);
def("TSTypeAssertion")
.bases("Expression", "Pattern")
.build("typeAnnotation", "expression")
.field("typeAnnotation", def("TSType"))
.field("expression", def("Expression"))
.field("extra", or({ parenthesized: Boolean }, null), defaults["null"]);
def("TSTypeParameterDeclaration")
.bases("Declaration")
.build("params")
.field("params", [def("TSTypeParameter")]);
def("TSTypeParameterInstantiation")
.bases("Node")
.build("params")
.field("params", [def("TSType")]);
def("TSEnumDeclaration")
.bases("Declaration")
.build("id", "members")
.field("id", def("Identifier"))
.field("const", Boolean, defaults["false"])
.field("declare", Boolean, defaults["false"])
.field("members", [def("TSEnumMember")])
.field("initializer", or(def("Expression"), null), defaults["null"]);
def("TSTypeAliasDeclaration")
.bases("Declaration", "TSHasOptionalTypeParameters")
.build("id", "typeAnnotation")
.field("id", def("Identifier"))
.field("declare", Boolean, defaults["false"])
.field("typeAnnotation", def("TSType"));
def("TSModuleBlock")
.bases("Node")
.build("body")
.field("body", [def("Statement")]);
def("TSModuleDeclaration")
.bases("Declaration")
.build("id", "body")
.field("id", or(StringLiteral, TSEntityName))
.field("declare", Boolean, defaults["false"])
.field("global", Boolean, defaults["false"])
.field("body", or(def("TSModuleBlock"), def("TSModuleDeclaration"), null), defaults["null"]);
def("TSImportType")
.bases("TSType", "TSHasOptionalTypeParameterInstantiation")
.build("argument", "qualifier", "typeParameters")
.field("argument", StringLiteral)
.field("qualifier", or(TSEntityName, void 0), defaults["undefined"]);
def("TSImportEqualsDeclaration")
.bases("Declaration")
.build("id", "moduleReference")
.field("id", def("Identifier"))
.field("isExport", Boolean, defaults["false"])
.field("moduleReference", or(TSEntityName, def("TSExternalModuleReference")));
def("TSExternalModuleReference")
.bases("Declaration")
.build("expression")
.field("expression", StringLiteral);
def("TSExportAssignment")
.bases("Statement")
.build("expression")
.field("expression", def("Expression"));
def("TSNamespaceExportDeclaration")
.bases("Declaration")
.build("id")
.field("id", def("Identifier"));
def("TSInterfaceBody")
.bases("Node")
.build("body")
.field("body", [TSTypeMember]);
def("TSExpressionWithTypeArguments")
.bases("TSType", "TSHasOptionalTypeParameterInstantiation")
.build("expression", "typeParameters")
.field("expression", TSEntityName);
def("TSInterfaceDeclaration")
.bases("Declaration", "TSHasOptionalTypeParameters")
.build("id", "body")
.field("id", TSEntityName)
.field("declare", Boolean, defaults["false"])
.field("extends", or([def("TSExpressionWithTypeArguments")], null), defaults["null"])
.field("body", def("TSInterfaceBody"));
def("TSParameterProperty")
.bases("Pattern")
.build("parameter")
.field("accessibility", or("public", "private", "protected", void 0), defaults["undefined"])
.field("readonly", Boolean, defaults["false"])
.field("parameter", or(def("Identifier"), def("AssignmentPattern")));
def("ClassProperty")
.field("access", // Not "accessibility"?
or("public", "private", "protected", void 0), defaults["undefined"]);
// Defined already in es6 and babel-core.
def("ClassBody")
.field("body", [or(def("MethodDefinition"), def("VariableDeclarator"), def("ClassPropertyDefinition"), def("ClassProperty"), def("ClassPrivateProperty"), def("ClassMethod"), def("ClassPrivateMethod"),
// Just need to add these types:
def("TSDeclareMethod"), TSTypeMember)]);
}
exports.default = default_1;
module.exports = exports["default"];

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import { Def, Plugin } from "./types";
export default function (defs: Def[]): {
Type: {
or(...types: any[]): import("./lib/types").Type<any>;
from<T>(value: any, name?: string | undefined): import("./lib/types").Type<T>;
def(typeName: string): import("./lib/types").Def<any>;
hasDef(typeName: string): boolean;
};
builtInTypes: {
string: import("./lib/types").Type<string>;
function: import("./lib/types").Type<Function>;
array: import("./lib/types").Type<any[]>;
object: import("./lib/types").Type<{
[key: string]: any;
}>;
RegExp: import("./lib/types").Type<RegExp>;
Date: import("./lib/types").Type<Date>;
number: import("./lib/types").Type<number>;
boolean: import("./lib/types").Type<boolean>;
null: import("./lib/types").Type<null>;
undefined: import("./lib/types").Type<undefined>;
};
namedTypes: import("./gen/namedTypes").NamedTypes;
builders: import("./gen/builders").builders;
defineMethod: (name: any, func?: Function | undefined) => Function;
getFieldNames: (object: any) => string[];
getFieldValue: (object: any, fieldName: any) => any;
eachField: (object: any, callback: (name: any, value: any) => any, context?: any) => void;
someField: (object: any, callback: (name: any, value: any) => any, context?: any) => boolean;
getSupertypeNames: (typeName: string) => string[];
getBuilderName: (typeName: any) => any;
astNodesAreEquivalent: {
(a: any, b: any, problemPath?: any): boolean;
assert(a: any, b: any): void;
};
finalize: () => void;
Path: import("./lib/path").PathConstructor;
NodePath: import("./lib/node-path").NodePathConstructor;
PathVisitor: import("./lib/path-visitor").PathVisitorConstructor;
use: <T_1>(plugin: Plugin<T_1>) => T_1;
visit: <M = {}>(node: import("./lib/types").ASTNode, methods?: import("./main").Visitor<M> | undefined) => any;
};

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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var types_1 = tslib_1.__importDefault(require("./lib/types"));
var path_visitor_1 = tslib_1.__importDefault(require("./lib/path-visitor"));
var equiv_1 = tslib_1.__importDefault(require("./lib/equiv"));
var path_1 = tslib_1.__importDefault(require("./lib/path"));
var node_path_1 = tslib_1.__importDefault(require("./lib/node-path"));
function default_1(defs) {
var fork = createFork();
var types = fork.use(types_1.default);
defs.forEach(fork.use);
types.finalize();
var PathVisitor = fork.use(path_visitor_1.default);
return {
Type: types.Type,
builtInTypes: types.builtInTypes,
namedTypes: types.namedTypes,
builders: types.builders,
defineMethod: types.defineMethod,
getFieldNames: types.getFieldNames,
getFieldValue: types.getFieldValue,
eachField: types.eachField,
someField: types.someField,
getSupertypeNames: types.getSupertypeNames,
getBuilderName: types.getBuilderName,
astNodesAreEquivalent: fork.use(equiv_1.default),
finalize: types.finalize,
Path: fork.use(path_1.default),
NodePath: fork.use(node_path_1.default),
PathVisitor: PathVisitor,
use: fork.use,
visit: PathVisitor.visit,
};
}
exports.default = default_1;
function createFork() {
var used = [];
var usedResult = [];
function use(plugin) {
var idx = used.indexOf(plugin);
if (idx === -1) {
idx = used.length;
used.push(plugin);
usedResult[idx] = plugin(fork);
}
return usedResult[idx];
}
var fork = { use: use };
return fork;
}
module.exports = exports["default"];

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"use strict";
Object.defineProperty(exports, "__esModule", { value: true });

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"use strict";
Object.defineProperty(exports, "__esModule", { value: true });

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"use strict";
Object.defineProperty(exports, "__esModule", { value: true });
exports.namedTypes = void 0;
var namedTypes;
(function (namedTypes) {
})(namedTypes = exports.namedTypes || (exports.namedTypes = {}));

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import { NodePath } from "../lib/node-path";
import { Context } from "../lib/path-visitor";
import { namedTypes } from "./namedTypes";
export interface Visitor<M = {}> {
visitPrintable?(this: Context & M, path: NodePath<namedTypes.Printable>): any;
visitSourceLocation?(this: Context & M, path: NodePath<namedTypes.SourceLocation>): any;
visitNode?(this: Context & M, path: NodePath<namedTypes.Node>): any;
visitComment?(this: Context & M, path: NodePath<namedTypes.Comment>): any;
visitPosition?(this: Context & M, path: NodePath<namedTypes.Position>): any;
visitFile?(this: Context & M, path: NodePath<namedTypes.File>): any;
visitProgram?(this: Context & M, path: NodePath<namedTypes.Program>): any;
visitStatement?(this: Context & M, path: NodePath<namedTypes.Statement>): any;
visitFunction?(this: Context & M, path: NodePath<namedTypes.Function>): any;
visitExpression?(this: Context & M, path: NodePath<namedTypes.Expression>): any;
visitPattern?(this: Context & M, path: NodePath<namedTypes.Pattern>): any;
visitIdentifier?(this: Context & M, path: NodePath<namedTypes.Identifier>): any;
visitBlockStatement?(this: Context & M, path: NodePath<namedTypes.BlockStatement>): any;
visitEmptyStatement?(this: Context & M, path: NodePath<namedTypes.EmptyStatement>): any;
visitExpressionStatement?(this: Context & M, path: NodePath<namedTypes.ExpressionStatement>): any;
visitIfStatement?(this: Context & M, path: NodePath<namedTypes.IfStatement>): any;
visitLabeledStatement?(this: Context & M, path: NodePath<namedTypes.LabeledStatement>): any;
visitBreakStatement?(this: Context & M, path: NodePath<namedTypes.BreakStatement>): any;
visitContinueStatement?(this: Context & M, path: NodePath<namedTypes.ContinueStatement>): any;
visitWithStatement?(this: Context & M, path: NodePath<namedTypes.WithStatement>): any;
visitSwitchStatement?(this: Context & M, path: NodePath<namedTypes.SwitchStatement>): any;
visitSwitchCase?(this: Context & M, path: NodePath<namedTypes.SwitchCase>): any;
visitReturnStatement?(this: Context & M, path: NodePath<namedTypes.ReturnStatement>): any;
visitThrowStatement?(this: Context & M, path: NodePath<namedTypes.ThrowStatement>): any;
visitTryStatement?(this: Context & M, path: NodePath<namedTypes.TryStatement>): any;
visitCatchClause?(this: Context & M, path: NodePath<namedTypes.CatchClause>): any;
visitWhileStatement?(this: Context & M, path: NodePath<namedTypes.WhileStatement>): any;
visitDoWhileStatement?(this: Context & M, path: NodePath<namedTypes.DoWhileStatement>): any;
visitForStatement?(this: Context & M, path: NodePath<namedTypes.ForStatement>): any;
visitDeclaration?(this: Context & M, path: NodePath<namedTypes.Declaration>): any;
visitVariableDeclaration?(this: Context & M, path: NodePath<namedTypes.VariableDeclaration>): any;
visitForInStatement?(this: Context & M, path: NodePath<namedTypes.ForInStatement>): any;
visitDebuggerStatement?(this: Context & M, path: NodePath<namedTypes.DebuggerStatement>): any;
visitFunctionDeclaration?(this: Context & M, path: NodePath<namedTypes.FunctionDeclaration>): any;
visitFunctionExpression?(this: Context & M, path: NodePath<namedTypes.FunctionExpression>): any;
visitVariableDeclarator?(this: Context & M, path: NodePath<namedTypes.VariableDeclarator>): any;
visitThisExpression?(this: Context & M, path: NodePath<namedTypes.ThisExpression>): any;
visitArrayExpression?(this: Context & M, path: NodePath<namedTypes.ArrayExpression>): any;
visitObjectExpression?(this: Context & M, path: NodePath<namedTypes.ObjectExpression>): any;
visitProperty?(this: Context & M, path: NodePath<namedTypes.Property>): any;
visitLiteral?(this: Context & M, path: NodePath<namedTypes.Literal>): any;
visitSequenceExpression?(this: Context & M, path: NodePath<namedTypes.SequenceExpression>): any;
visitUnaryExpression?(this: Context & M, path: NodePath<namedTypes.UnaryExpression>): any;
visitBinaryExpression?(this: Context & M, path: NodePath<namedTypes.BinaryExpression>): any;
visitAssignmentExpression?(this: Context & M, path: NodePath<namedTypes.AssignmentExpression>): any;
visitMemberExpression?(this: Context & M, path: NodePath<namedTypes.MemberExpression>): any;
visitUpdateExpression?(this: Context & M, path: NodePath<namedTypes.UpdateExpression>): any;
visitLogicalExpression?(this: Context & M, path: NodePath<namedTypes.LogicalExpression>): any;
visitConditionalExpression?(this: Context & M, path: NodePath<namedTypes.ConditionalExpression>): any;
visitNewExpression?(this: Context & M, path: NodePath<namedTypes.NewExpression>): any;
visitCallExpression?(this: Context & M, path: NodePath<namedTypes.CallExpression>): any;
visitRestElement?(this: Context & M, path: NodePath<namedTypes.RestElement>): any;
visitTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.TypeAnnotation>): any;
visitTSTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.TSTypeAnnotation>): any;
visitSpreadElementPattern?(this: Context & M, path: NodePath<namedTypes.SpreadElementPattern>): any;
visitArrowFunctionExpression?(this: Context & M, path: NodePath<namedTypes.ArrowFunctionExpression>): any;
visitForOfStatement?(this: Context & M, path: NodePath<namedTypes.ForOfStatement>): any;
visitYieldExpression?(this: Context & M, path: NodePath<namedTypes.YieldExpression>): any;
visitGeneratorExpression?(this: Context & M, path: NodePath<namedTypes.GeneratorExpression>): any;
visitComprehensionBlock?(this: Context & M, path: NodePath<namedTypes.ComprehensionBlock>): any;
visitComprehensionExpression?(this: Context & M, path: NodePath<namedTypes.ComprehensionExpression>): any;
visitObjectProperty?(this: Context & M, path: NodePath<namedTypes.ObjectProperty>): any;
visitPropertyPattern?(this: Context & M, path: NodePath<namedTypes.PropertyPattern>): any;
visitObjectPattern?(this: Context & M, path: NodePath<namedTypes.ObjectPattern>): any;
visitArrayPattern?(this: Context & M, path: NodePath<namedTypes.ArrayPattern>): any;
visitMethodDefinition?(this: Context & M, path: NodePath<namedTypes.MethodDefinition>): any;
visitSpreadElement?(this: Context & M, path: NodePath<namedTypes.SpreadElement>): any;
visitAssignmentPattern?(this: Context & M, path: NodePath<namedTypes.AssignmentPattern>): any;
visitClassPropertyDefinition?(this: Context & M, path: NodePath<namedTypes.ClassPropertyDefinition>): any;
visitClassProperty?(this: Context & M, path: NodePath<namedTypes.ClassProperty>): any;
visitClassBody?(this: Context & M, path: NodePath<namedTypes.ClassBody>): any;
visitClassDeclaration?(this: Context & M, path: NodePath<namedTypes.ClassDeclaration>): any;
visitClassExpression?(this: Context & M, path: NodePath<namedTypes.ClassExpression>): any;
visitSpecifier?(this: Context & M, path: NodePath<namedTypes.Specifier>): any;
visitModuleSpecifier?(this: Context & M, path: NodePath<namedTypes.ModuleSpecifier>): any;
visitImportSpecifier?(this: Context & M, path: NodePath<namedTypes.ImportSpecifier>): any;
visitImportNamespaceSpecifier?(this: Context & M, path: NodePath<namedTypes.ImportNamespaceSpecifier>): any;
visitImportDefaultSpecifier?(this: Context & M, path: NodePath<namedTypes.ImportDefaultSpecifier>): any;
visitImportDeclaration?(this: Context & M, path: NodePath<namedTypes.ImportDeclaration>): any;
visitTaggedTemplateExpression?(this: Context & M, path: NodePath<namedTypes.TaggedTemplateExpression>): any;
visitTemplateLiteral?(this: Context & M, path: NodePath<namedTypes.TemplateLiteral>): any;
visitTemplateElement?(this: Context & M, path: NodePath<namedTypes.TemplateElement>): any;
visitSpreadProperty?(this: Context & M, path: NodePath<namedTypes.SpreadProperty>): any;
visitSpreadPropertyPattern?(this: Context & M, path: NodePath<namedTypes.SpreadPropertyPattern>): any;
visitAwaitExpression?(this: Context & M, path: NodePath<namedTypes.AwaitExpression>): any;
visitImportExpression?(this: Context & M, path: NodePath<namedTypes.ImportExpression>): any;
visitJSXAttribute?(this: Context & M, path: NodePath<namedTypes.JSXAttribute>): any;
visitJSXIdentifier?(this: Context & M, path: NodePath<namedTypes.JSXIdentifier>): any;
visitJSXNamespacedName?(this: Context & M, path: NodePath<namedTypes.JSXNamespacedName>): any;
visitJSXExpressionContainer?(this: Context & M, path: NodePath<namedTypes.JSXExpressionContainer>): any;
visitJSXMemberExpression?(this: Context & M, path: NodePath<namedTypes.JSXMemberExpression>): any;
visitJSXSpreadAttribute?(this: Context & M, path: NodePath<namedTypes.JSXSpreadAttribute>): any;
visitJSXElement?(this: Context & M, path: NodePath<namedTypes.JSXElement>): any;
visitJSXOpeningElement?(this: Context & M, path: NodePath<namedTypes.JSXOpeningElement>): any;
visitJSXClosingElement?(this: Context & M, path: NodePath<namedTypes.JSXClosingElement>): any;
visitJSXFragment?(this: Context & M, path: NodePath<namedTypes.JSXFragment>): any;
visitJSXText?(this: Context & M, path: NodePath<namedTypes.JSXText>): any;
visitJSXOpeningFragment?(this: Context & M, path: NodePath<namedTypes.JSXOpeningFragment>): any;
visitJSXClosingFragment?(this: Context & M, path: NodePath<namedTypes.JSXClosingFragment>): any;
visitJSXEmptyExpression?(this: Context & M, path: NodePath<namedTypes.JSXEmptyExpression>): any;
visitJSXSpreadChild?(this: Context & M, path: NodePath<namedTypes.JSXSpreadChild>): any;
visitTypeParameterDeclaration?(this: Context & M, path: NodePath<namedTypes.TypeParameterDeclaration>): any;
visitTSTypeParameterDeclaration?(this: Context & M, path: NodePath<namedTypes.TSTypeParameterDeclaration>): any;
visitTypeParameterInstantiation?(this: Context & M, path: NodePath<namedTypes.TypeParameterInstantiation>): any;
visitTSTypeParameterInstantiation?(this: Context & M, path: NodePath<namedTypes.TSTypeParameterInstantiation>): any;
visitClassImplements?(this: Context & M, path: NodePath<namedTypes.ClassImplements>): any;
visitTSType?(this: Context & M, path: NodePath<namedTypes.TSType>): any;
visitTSHasOptionalTypeParameterInstantiation?(this: Context & M, path: NodePath<namedTypes.TSHasOptionalTypeParameterInstantiation>): any;
visitTSExpressionWithTypeArguments?(this: Context & M, path: NodePath<namedTypes.TSExpressionWithTypeArguments>): any;
visitFlow?(this: Context & M, path: NodePath<namedTypes.Flow>): any;
visitFlowType?(this: Context & M, path: NodePath<namedTypes.FlowType>): any;
visitAnyTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.AnyTypeAnnotation>): any;
visitEmptyTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.EmptyTypeAnnotation>): any;
visitMixedTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.MixedTypeAnnotation>): any;
visitVoidTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.VoidTypeAnnotation>): any;
visitNumberTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.NumberTypeAnnotation>): any;
visitNumberLiteralTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.NumberLiteralTypeAnnotation>): any;
visitNumericLiteralTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.NumericLiteralTypeAnnotation>): any;
visitStringTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.StringTypeAnnotation>): any;
visitStringLiteralTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.StringLiteralTypeAnnotation>): any;
visitBooleanTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.BooleanTypeAnnotation>): any;
visitBooleanLiteralTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.BooleanLiteralTypeAnnotation>): any;
visitNullableTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.NullableTypeAnnotation>): any;
visitNullLiteralTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.NullLiteralTypeAnnotation>): any;
visitNullTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.NullTypeAnnotation>): any;
visitThisTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.ThisTypeAnnotation>): any;
visitExistsTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.ExistsTypeAnnotation>): any;
visitExistentialTypeParam?(this: Context & M, path: NodePath<namedTypes.ExistentialTypeParam>): any;
visitFunctionTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.FunctionTypeAnnotation>): any;
visitFunctionTypeParam?(this: Context & M, path: NodePath<namedTypes.FunctionTypeParam>): any;
visitArrayTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.ArrayTypeAnnotation>): any;
visitObjectTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.ObjectTypeAnnotation>): any;
visitObjectTypeProperty?(this: Context & M, path: NodePath<namedTypes.ObjectTypeProperty>): any;
visitObjectTypeSpreadProperty?(this: Context & M, path: NodePath<namedTypes.ObjectTypeSpreadProperty>): any;
visitObjectTypeIndexer?(this: Context & M, path: NodePath<namedTypes.ObjectTypeIndexer>): any;
visitObjectTypeCallProperty?(this: Context & M, path: NodePath<namedTypes.ObjectTypeCallProperty>): any;
visitObjectTypeInternalSlot?(this: Context & M, path: NodePath<namedTypes.ObjectTypeInternalSlot>): any;
visitVariance?(this: Context & M, path: NodePath<namedTypes.Variance>): any;
visitQualifiedTypeIdentifier?(this: Context & M, path: NodePath<namedTypes.QualifiedTypeIdentifier>): any;
visitGenericTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.GenericTypeAnnotation>): any;
visitMemberTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.MemberTypeAnnotation>): any;
visitUnionTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.UnionTypeAnnotation>): any;
visitIntersectionTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.IntersectionTypeAnnotation>): any;
visitTypeofTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.TypeofTypeAnnotation>): any;
visitTypeParameter?(this: Context & M, path: NodePath<namedTypes.TypeParameter>): any;
visitInterfaceTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.InterfaceTypeAnnotation>): any;
visitInterfaceExtends?(this: Context & M, path: NodePath<namedTypes.InterfaceExtends>): any;
visitInterfaceDeclaration?(this: Context & M, path: NodePath<namedTypes.InterfaceDeclaration>): any;
visitDeclareInterface?(this: Context & M, path: NodePath<namedTypes.DeclareInterface>): any;
visitTypeAlias?(this: Context & M, path: NodePath<namedTypes.TypeAlias>): any;
visitOpaqueType?(this: Context & M, path: NodePath<namedTypes.OpaqueType>): any;
visitDeclareTypeAlias?(this: Context & M, path: NodePath<namedTypes.DeclareTypeAlias>): any;
visitDeclareOpaqueType?(this: Context & M, path: NodePath<namedTypes.DeclareOpaqueType>): any;
visitTypeCastExpression?(this: Context & M, path: NodePath<namedTypes.TypeCastExpression>): any;
visitTupleTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.TupleTypeAnnotation>): any;
visitDeclareVariable?(this: Context & M, path: NodePath<namedTypes.DeclareVariable>): any;
visitDeclareFunction?(this: Context & M, path: NodePath<namedTypes.DeclareFunction>): any;
visitDeclareClass?(this: Context & M, path: NodePath<namedTypes.DeclareClass>): any;
visitDeclareModule?(this: Context & M, path: NodePath<namedTypes.DeclareModule>): any;
visitDeclareModuleExports?(this: Context & M, path: NodePath<namedTypes.DeclareModuleExports>): any;
visitDeclareExportDeclaration?(this: Context & M, path: NodePath<namedTypes.DeclareExportDeclaration>): any;
visitExportSpecifier?(this: Context & M, path: NodePath<namedTypes.ExportSpecifier>): any;
visitExportBatchSpecifier?(this: Context & M, path: NodePath<namedTypes.ExportBatchSpecifier>): any;
visitDeclareExportAllDeclaration?(this: Context & M, path: NodePath<namedTypes.DeclareExportAllDeclaration>): any;
visitFlowPredicate?(this: Context & M, path: NodePath<namedTypes.FlowPredicate>): any;
visitInferredPredicate?(this: Context & M, path: NodePath<namedTypes.InferredPredicate>): any;
visitDeclaredPredicate?(this: Context & M, path: NodePath<namedTypes.DeclaredPredicate>): any;
visitExportDeclaration?(this: Context & M, path: NodePath<namedTypes.ExportDeclaration>): any;
visitBlock?(this: Context & M, path: NodePath<namedTypes.Block>): any;
visitLine?(this: Context & M, path: NodePath<namedTypes.Line>): any;
visitNoop?(this: Context & M, path: NodePath<namedTypes.Noop>): any;
visitDoExpression?(this: Context & M, path: NodePath<namedTypes.DoExpression>): any;
visitSuper?(this: Context & M, path: NodePath<namedTypes.Super>): any;
visitBindExpression?(this: Context & M, path: NodePath<namedTypes.BindExpression>): any;
visitDecorator?(this: Context & M, path: NodePath<namedTypes.Decorator>): any;
visitMetaProperty?(this: Context & M, path: NodePath<namedTypes.MetaProperty>): any;
visitParenthesizedExpression?(this: Context & M, path: NodePath<namedTypes.ParenthesizedExpression>): any;
visitExportDefaultDeclaration?(this: Context & M, path: NodePath<namedTypes.ExportDefaultDeclaration>): any;
visitExportNamedDeclaration?(this: Context & M, path: NodePath<namedTypes.ExportNamedDeclaration>): any;
visitExportNamespaceSpecifier?(this: Context & M, path: NodePath<namedTypes.ExportNamespaceSpecifier>): any;
visitExportDefaultSpecifier?(this: Context & M, path: NodePath<namedTypes.ExportDefaultSpecifier>): any;
visitExportAllDeclaration?(this: Context & M, path: NodePath<namedTypes.ExportAllDeclaration>): any;
visitCommentBlock?(this: Context & M, path: NodePath<namedTypes.CommentBlock>): any;
visitCommentLine?(this: Context & M, path: NodePath<namedTypes.CommentLine>): any;
visitDirective?(this: Context & M, path: NodePath<namedTypes.Directive>): any;
visitDirectiveLiteral?(this: Context & M, path: NodePath<namedTypes.DirectiveLiteral>): any;
visitInterpreterDirective?(this: Context & M, path: NodePath<namedTypes.InterpreterDirective>): any;
visitStringLiteral?(this: Context & M, path: NodePath<namedTypes.StringLiteral>): any;
visitNumericLiteral?(this: Context & M, path: NodePath<namedTypes.NumericLiteral>): any;
visitBigIntLiteral?(this: Context & M, path: NodePath<namedTypes.BigIntLiteral>): any;
visitNullLiteral?(this: Context & M, path: NodePath<namedTypes.NullLiteral>): any;
visitBooleanLiteral?(this: Context & M, path: NodePath<namedTypes.BooleanLiteral>): any;
visitRegExpLiteral?(this: Context & M, path: NodePath<namedTypes.RegExpLiteral>): any;
visitObjectMethod?(this: Context & M, path: NodePath<namedTypes.ObjectMethod>): any;
visitClassPrivateProperty?(this: Context & M, path: NodePath<namedTypes.ClassPrivateProperty>): any;
visitClassMethod?(this: Context & M, path: NodePath<namedTypes.ClassMethod>): any;
visitClassPrivateMethod?(this: Context & M, path: NodePath<namedTypes.ClassPrivateMethod>): any;
visitPrivateName?(this: Context & M, path: NodePath<namedTypes.PrivateName>): any;
visitRestProperty?(this: Context & M, path: NodePath<namedTypes.RestProperty>): any;
visitForAwaitStatement?(this: Context & M, path: NodePath<namedTypes.ForAwaitStatement>): any;
visitImport?(this: Context & M, path: NodePath<namedTypes.Import>): any;
visitTSQualifiedName?(this: Context & M, path: NodePath<namedTypes.TSQualifiedName>): any;
visitTSTypeReference?(this: Context & M, path: NodePath<namedTypes.TSTypeReference>): any;
visitTSHasOptionalTypeParameters?(this: Context & M, path: NodePath<namedTypes.TSHasOptionalTypeParameters>): any;
visitTSHasOptionalTypeAnnotation?(this: Context & M, path: NodePath<namedTypes.TSHasOptionalTypeAnnotation>): any;
visitTSAsExpression?(this: Context & M, path: NodePath<namedTypes.TSAsExpression>): any;
visitTSNonNullExpression?(this: Context & M, path: NodePath<namedTypes.TSNonNullExpression>): any;
visitTSAnyKeyword?(this: Context & M, path: NodePath<namedTypes.TSAnyKeyword>): any;
visitTSBigIntKeyword?(this: Context & M, path: NodePath<namedTypes.TSBigIntKeyword>): any;
visitTSBooleanKeyword?(this: Context & M, path: NodePath<namedTypes.TSBooleanKeyword>): any;
visitTSNeverKeyword?(this: Context & M, path: NodePath<namedTypes.TSNeverKeyword>): any;
visitTSNullKeyword?(this: Context & M, path: NodePath<namedTypes.TSNullKeyword>): any;
visitTSNumberKeyword?(this: Context & M, path: NodePath<namedTypes.TSNumberKeyword>): any;
visitTSObjectKeyword?(this: Context & M, path: NodePath<namedTypes.TSObjectKeyword>): any;
visitTSStringKeyword?(this: Context & M, path: NodePath<namedTypes.TSStringKeyword>): any;
visitTSSymbolKeyword?(this: Context & M, path: NodePath<namedTypes.TSSymbolKeyword>): any;
visitTSUndefinedKeyword?(this: Context & M, path: NodePath<namedTypes.TSUndefinedKeyword>): any;
visitTSUnknownKeyword?(this: Context & M, path: NodePath<namedTypes.TSUnknownKeyword>): any;
visitTSVoidKeyword?(this: Context & M, path: NodePath<namedTypes.TSVoidKeyword>): any;
visitTSThisType?(this: Context & M, path: NodePath<namedTypes.TSThisType>): any;
visitTSArrayType?(this: Context & M, path: NodePath<namedTypes.TSArrayType>): any;
visitTSLiteralType?(this: Context & M, path: NodePath<namedTypes.TSLiteralType>): any;
visitTSUnionType?(this: Context & M, path: NodePath<namedTypes.TSUnionType>): any;
visitTSIntersectionType?(this: Context & M, path: NodePath<namedTypes.TSIntersectionType>): any;
visitTSConditionalType?(this: Context & M, path: NodePath<namedTypes.TSConditionalType>): any;
visitTSInferType?(this: Context & M, path: NodePath<namedTypes.TSInferType>): any;
visitTSTypeParameter?(this: Context & M, path: NodePath<namedTypes.TSTypeParameter>): any;
visitTSParenthesizedType?(this: Context & M, path: NodePath<namedTypes.TSParenthesizedType>): any;
visitTSFunctionType?(this: Context & M, path: NodePath<namedTypes.TSFunctionType>): any;
visitTSConstructorType?(this: Context & M, path: NodePath<namedTypes.TSConstructorType>): any;
visitTSDeclareFunction?(this: Context & M, path: NodePath<namedTypes.TSDeclareFunction>): any;
visitTSDeclareMethod?(this: Context & M, path: NodePath<namedTypes.TSDeclareMethod>): any;
visitTSMappedType?(this: Context & M, path: NodePath<namedTypes.TSMappedType>): any;
visitTSTupleType?(this: Context & M, path: NodePath<namedTypes.TSTupleType>): any;
visitTSNamedTupleMember?(this: Context & M, path: NodePath<namedTypes.TSNamedTupleMember>): any;
visitTSRestType?(this: Context & M, path: NodePath<namedTypes.TSRestType>): any;
visitTSOptionalType?(this: Context & M, path: NodePath<namedTypes.TSOptionalType>): any;
visitTSIndexedAccessType?(this: Context & M, path: NodePath<namedTypes.TSIndexedAccessType>): any;
visitTSTypeOperator?(this: Context & M, path: NodePath<namedTypes.TSTypeOperator>): any;
visitTSIndexSignature?(this: Context & M, path: NodePath<namedTypes.TSIndexSignature>): any;
visitTSPropertySignature?(this: Context & M, path: NodePath<namedTypes.TSPropertySignature>): any;
visitTSMethodSignature?(this: Context & M, path: NodePath<namedTypes.TSMethodSignature>): any;
visitTSTypePredicate?(this: Context & M, path: NodePath<namedTypes.TSTypePredicate>): any;
visitTSCallSignatureDeclaration?(this: Context & M, path: NodePath<namedTypes.TSCallSignatureDeclaration>): any;
visitTSConstructSignatureDeclaration?(this: Context & M, path: NodePath<namedTypes.TSConstructSignatureDeclaration>): any;
visitTSEnumMember?(this: Context & M, path: NodePath<namedTypes.TSEnumMember>): any;
visitTSTypeQuery?(this: Context & M, path: NodePath<namedTypes.TSTypeQuery>): any;
visitTSImportType?(this: Context & M, path: NodePath<namedTypes.TSImportType>): any;
visitTSTypeLiteral?(this: Context & M, path: NodePath<namedTypes.TSTypeLiteral>): any;
visitTSTypeAssertion?(this: Context & M, path: NodePath<namedTypes.TSTypeAssertion>): any;
visitTSEnumDeclaration?(this: Context & M, path: NodePath<namedTypes.TSEnumDeclaration>): any;
visitTSTypeAliasDeclaration?(this: Context & M, path: NodePath<namedTypes.TSTypeAliasDeclaration>): any;
visitTSModuleBlock?(this: Context & M, path: NodePath<namedTypes.TSModuleBlock>): any;
visitTSModuleDeclaration?(this: Context & M, path: NodePath<namedTypes.TSModuleDeclaration>): any;
visitTSImportEqualsDeclaration?(this: Context & M, path: NodePath<namedTypes.TSImportEqualsDeclaration>): any;
visitTSExternalModuleReference?(this: Context & M, path: NodePath<namedTypes.TSExternalModuleReference>): any;
visitTSExportAssignment?(this: Context & M, path: NodePath<namedTypes.TSExportAssignment>): any;
visitTSNamespaceExportDeclaration?(this: Context & M, path: NodePath<namedTypes.TSNamespaceExportDeclaration>): any;
visitTSInterfaceBody?(this: Context & M, path: NodePath<namedTypes.TSInterfaceBody>): any;
visitTSInterfaceDeclaration?(this: Context & M, path: NodePath<namedTypes.TSInterfaceDeclaration>): any;
visitTSParameterProperty?(this: Context & M, path: NodePath<namedTypes.TSParameterProperty>): any;
visitOptionalMemberExpression?(this: Context & M, path: NodePath<namedTypes.OptionalMemberExpression>): any;
visitOptionalCallExpression?(this: Context & M, path: NodePath<namedTypes.OptionalCallExpression>): any;
}

2
node_modules/ast-types/gen/visitor.js generated vendored Normal file
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@@ -0,0 +1,2 @@
"use strict";
Object.defineProperty(exports, "__esModule", { value: true });

5
node_modules/ast-types/lib/equiv.d.ts generated vendored Normal file
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import { Fork } from "../types";
export default function (fork: Fork): {
(a: any, b: any, problemPath?: any): boolean;
assert(a: any, b: any): void;
};

154
node_modules/ast-types/lib/equiv.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var types_1 = tslib_1.__importDefault(require("./types"));
function default_1(fork) {
var types = fork.use(types_1.default);
var getFieldNames = types.getFieldNames;
var getFieldValue = types.getFieldValue;
var isArray = types.builtInTypes.array;
var isObject = types.builtInTypes.object;
var isDate = types.builtInTypes.Date;
var isRegExp = types.builtInTypes.RegExp;
var hasOwn = Object.prototype.hasOwnProperty;
function astNodesAreEquivalent(a, b, problemPath) {
if (isArray.check(problemPath)) {
problemPath.length = 0;
}
else {
problemPath = null;
}
return areEquivalent(a, b, problemPath);
}
astNodesAreEquivalent.assert = function (a, b) {
var problemPath = [];
if (!astNodesAreEquivalent(a, b, problemPath)) {
if (problemPath.length === 0) {
if (a !== b) {
throw new Error("Nodes must be equal");
}
}
else {
throw new Error("Nodes differ in the following path: " +
problemPath.map(subscriptForProperty).join(""));
}
}
};
function subscriptForProperty(property) {
if (/[_$a-z][_$a-z0-9]*/i.test(property)) {
return "." + property;
}
return "[" + JSON.stringify(property) + "]";
}
function areEquivalent(a, b, problemPath) {
if (a === b) {
return true;
}
if (isArray.check(a)) {
return arraysAreEquivalent(a, b, problemPath);
}
if (isObject.check(a)) {
return objectsAreEquivalent(a, b, problemPath);
}
if (isDate.check(a)) {
return isDate.check(b) && (+a === +b);
}
if (isRegExp.check(a)) {
return isRegExp.check(b) && (a.source === b.source &&
a.global === b.global &&
a.multiline === b.multiline &&
a.ignoreCase === b.ignoreCase);
}
return a == b;
}
function arraysAreEquivalent(a, b, problemPath) {
isArray.assert(a);
var aLength = a.length;
if (!isArray.check(b) || b.length !== aLength) {
if (problemPath) {
problemPath.push("length");
}
return false;
}
for (var i = 0; i < aLength; ++i) {
if (problemPath) {
problemPath.push(i);
}
if (i in a !== i in b) {
return false;
}
if (!areEquivalent(a[i], b[i], problemPath)) {
return false;
}
if (problemPath) {
var problemPathTail = problemPath.pop();
if (problemPathTail !== i) {
throw new Error("" + problemPathTail);
}
}
}
return true;
}
function objectsAreEquivalent(a, b, problemPath) {
isObject.assert(a);
if (!isObject.check(b)) {
return false;
}
// Fast path for a common property of AST nodes.
if (a.type !== b.type) {
if (problemPath) {
problemPath.push("type");
}
return false;
}
var aNames = getFieldNames(a);
var aNameCount = aNames.length;
var bNames = getFieldNames(b);
var bNameCount = bNames.length;
if (aNameCount === bNameCount) {
for (var i = 0; i < aNameCount; ++i) {
var name = aNames[i];
var aChild = getFieldValue(a, name);
var bChild = getFieldValue(b, name);
if (problemPath) {
problemPath.push(name);
}
if (!areEquivalent(aChild, bChild, problemPath)) {
return false;
}
if (problemPath) {
var problemPathTail = problemPath.pop();
if (problemPathTail !== name) {
throw new Error("" + problemPathTail);
}
}
}
return true;
}
if (!problemPath) {
return false;
}
// Since aNameCount !== bNameCount, we need to find some name that's
// missing in aNames but present in bNames, or vice-versa.
var seenNames = Object.create(null);
for (i = 0; i < aNameCount; ++i) {
seenNames[aNames[i]] = true;
}
for (i = 0; i < bNameCount; ++i) {
name = bNames[i];
if (!hasOwn.call(seenNames, name)) {
problemPath.push(name);
return false;
}
delete seenNames[name];
}
for (name in seenNames) {
problemPath.push(name);
break;
}
return false;
}
return astNodesAreEquivalent;
}
exports.default = default_1;
module.exports = exports["default"];

22
node_modules/ast-types/lib/node-path.d.ts generated vendored Normal file
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import { Fork } from "../types";
import { ASTNode } from "./types";
import { Path } from "./path";
import { Scope } from "./scope";
export interface NodePath<N = any, V = any> extends Path<V> {
node: N;
parent: any;
scope: any;
replace: Path['replace'];
prune(...args: any[]): any;
_computeNode(): any;
_computeParent(): any;
_computeScope(): Scope | null;
getValueProperty(name: any): any;
needsParens(assumeExpressionContext?: boolean): boolean;
canBeFirstInStatement(): boolean;
firstInStatement(): boolean;
}
export interface NodePathConstructor {
new <N extends ASTNode = any, V = any>(value: any, parentPath?: any, name?: any): NodePath<N, V>;
}
export default function nodePathPlugin(fork: Fork): NodePathConstructor;

411
node_modules/ast-types/lib/node-path.js generated vendored Normal file
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@@ -0,0 +1,411 @@
"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var types_1 = tslib_1.__importDefault(require("./types"));
var path_1 = tslib_1.__importDefault(require("./path"));
var scope_1 = tslib_1.__importDefault(require("./scope"));
function nodePathPlugin(fork) {
var types = fork.use(types_1.default);
var n = types.namedTypes;
var b = types.builders;
var isNumber = types.builtInTypes.number;
var isArray = types.builtInTypes.array;
var Path = fork.use(path_1.default);
var Scope = fork.use(scope_1.default);
var NodePath = function NodePath(value, parentPath, name) {
if (!(this instanceof NodePath)) {
throw new Error("NodePath constructor cannot be invoked without 'new'");
}
Path.call(this, value, parentPath, name);
};
var NPp = NodePath.prototype = Object.create(Path.prototype, {
constructor: {
value: NodePath,
enumerable: false,
writable: true,
configurable: true
}
});
Object.defineProperties(NPp, {
node: {
get: function () {
Object.defineProperty(this, "node", {
configurable: true,
value: this._computeNode()
});
return this.node;
}
},
parent: {
get: function () {
Object.defineProperty(this, "parent", {
configurable: true,
value: this._computeParent()
});
return this.parent;
}
},
scope: {
get: function () {
Object.defineProperty(this, "scope", {
configurable: true,
value: this._computeScope()
});
return this.scope;
}
}
});
NPp.replace = function () {
delete this.node;
delete this.parent;
delete this.scope;
return Path.prototype.replace.apply(this, arguments);
};
NPp.prune = function () {
var remainingNodePath = this.parent;
this.replace();
return cleanUpNodesAfterPrune(remainingNodePath);
};
// The value of the first ancestor Path whose value is a Node.
NPp._computeNode = function () {
var value = this.value;
if (n.Node.check(value)) {
return value;
}
var pp = this.parentPath;
return pp && pp.node || null;
};
// The first ancestor Path whose value is a Node distinct from this.node.
NPp._computeParent = function () {
var value = this.value;
var pp = this.parentPath;
if (!n.Node.check(value)) {
while (pp && !n.Node.check(pp.value)) {
pp = pp.parentPath;
}
if (pp) {
pp = pp.parentPath;
}
}
while (pp && !n.Node.check(pp.value)) {
pp = pp.parentPath;
}
return pp || null;
};
// The closest enclosing scope that governs this node.
NPp._computeScope = function () {
var value = this.value;
var pp = this.parentPath;
var scope = pp && pp.scope;
if (n.Node.check(value) &&
Scope.isEstablishedBy(value)) {
scope = new Scope(this, scope);
}
return scope || null;
};
NPp.getValueProperty = function (name) {
return types.getFieldValue(this.value, name);
};
/**
* Determine whether this.node needs to be wrapped in parentheses in order
* for a parser to reproduce the same local AST structure.
*
* For instance, in the expression `(1 + 2) * 3`, the BinaryExpression
* whose operator is "+" needs parentheses, because `1 + 2 * 3` would
* parse differently.
*
* If assumeExpressionContext === true, we don't worry about edge cases
* like an anonymous FunctionExpression appearing lexically first in its
* enclosing statement and thus needing parentheses to avoid being parsed
* as a FunctionDeclaration with a missing name.
*/
NPp.needsParens = function (assumeExpressionContext) {
var pp = this.parentPath;
if (!pp) {
return false;
}
var node = this.value;
// Only expressions need parentheses.
if (!n.Expression.check(node)) {
return false;
}
// Identifiers never need parentheses.
if (node.type === "Identifier") {
return false;
}
while (!n.Node.check(pp.value)) {
pp = pp.parentPath;
if (!pp) {
return false;
}
}
var parent = pp.value;
switch (node.type) {
case "UnaryExpression":
case "SpreadElement":
case "SpreadProperty":
return parent.type === "MemberExpression"
&& this.name === "object"
&& parent.object === node;
case "BinaryExpression":
case "LogicalExpression":
switch (parent.type) {
case "CallExpression":
return this.name === "callee"
&& parent.callee === node;
case "UnaryExpression":
case "SpreadElement":
case "SpreadProperty":
return true;
case "MemberExpression":
return this.name === "object"
&& parent.object === node;
case "BinaryExpression":
case "LogicalExpression": {
var n_1 = node;
var po = parent.operator;
var pp_1 = PRECEDENCE[po];
var no = n_1.operator;
var np = PRECEDENCE[no];
if (pp_1 > np) {
return true;
}
if (pp_1 === np && this.name === "right") {
if (parent.right !== n_1) {
throw new Error("Nodes must be equal");
}
return true;
}
}
default:
return false;
}
case "SequenceExpression":
switch (parent.type) {
case "ForStatement":
// Although parentheses wouldn't hurt around sequence
// expressions in the head of for loops, traditional style
// dictates that e.g. i++, j++ should not be wrapped with
// parentheses.
return false;
case "ExpressionStatement":
return this.name !== "expression";
default:
// Otherwise err on the side of overparenthesization, adding
// explicit exceptions above if this proves overzealous.
return true;
}
case "YieldExpression":
switch (parent.type) {
case "BinaryExpression":
case "LogicalExpression":
case "UnaryExpression":
case "SpreadElement":
case "SpreadProperty":
case "CallExpression":
case "MemberExpression":
case "NewExpression":
case "ConditionalExpression":
case "YieldExpression":
return true;
default:
return false;
}
case "Literal":
return parent.type === "MemberExpression"
&& isNumber.check(node.value)
&& this.name === "object"
&& parent.object === node;
case "AssignmentExpression":
case "ConditionalExpression":
switch (parent.type) {
case "UnaryExpression":
case "SpreadElement":
case "SpreadProperty":
case "BinaryExpression":
case "LogicalExpression":
return true;
case "CallExpression":
return this.name === "callee"
&& parent.callee === node;
case "ConditionalExpression":
return this.name === "test"
&& parent.test === node;
case "MemberExpression":
return this.name === "object"
&& parent.object === node;
default:
return false;
}
default:
if (parent.type === "NewExpression" &&
this.name === "callee" &&
parent.callee === node) {
return containsCallExpression(node);
}
}
if (assumeExpressionContext !== true &&
!this.canBeFirstInStatement() &&
this.firstInStatement())
return true;
return false;
};
function isBinary(node) {
return n.BinaryExpression.check(node)
|| n.LogicalExpression.check(node);
}
// @ts-ignore 'isUnaryLike' is declared but its value is never read. [6133]
function isUnaryLike(node) {
return n.UnaryExpression.check(node)
// I considered making SpreadElement and SpreadProperty subtypes
// of UnaryExpression, but they're not really Expression nodes.
|| (n.SpreadElement && n.SpreadElement.check(node))
|| (n.SpreadProperty && n.SpreadProperty.check(node));
}
var PRECEDENCE = {};
[["||"],
["&&"],
["|"],
["^"],
["&"],
["==", "===", "!=", "!=="],
["<", ">", "<=", ">=", "in", "instanceof"],
[">>", "<<", ">>>"],
["+", "-"],
["*", "/", "%"]
].forEach(function (tier, i) {
tier.forEach(function (op) {
PRECEDENCE[op] = i;
});
});
function containsCallExpression(node) {
if (n.CallExpression.check(node)) {
return true;
}
if (isArray.check(node)) {
return node.some(containsCallExpression);
}
if (n.Node.check(node)) {
return types.someField(node, function (_name, child) {
return containsCallExpression(child);
});
}
return false;
}
NPp.canBeFirstInStatement = function () {
var node = this.node;
return !n.FunctionExpression.check(node)
&& !n.ObjectExpression.check(node);
};
NPp.firstInStatement = function () {
return firstInStatement(this);
};
function firstInStatement(path) {
for (var node, parent; path.parent; path = path.parent) {
node = path.node;
parent = path.parent.node;
if (n.BlockStatement.check(parent) &&
path.parent.name === "body" &&
path.name === 0) {
if (parent.body[0] !== node) {
throw new Error("Nodes must be equal");
}
return true;
}
if (n.ExpressionStatement.check(parent) &&
path.name === "expression") {
if (parent.expression !== node) {
throw new Error("Nodes must be equal");
}
return true;
}
if (n.SequenceExpression.check(parent) &&
path.parent.name === "expressions" &&
path.name === 0) {
if (parent.expressions[0] !== node) {
throw new Error("Nodes must be equal");
}
continue;
}
if (n.CallExpression.check(parent) &&
path.name === "callee") {
if (parent.callee !== node) {
throw new Error("Nodes must be equal");
}
continue;
}
if (n.MemberExpression.check(parent) &&
path.name === "object") {
if (parent.object !== node) {
throw new Error("Nodes must be equal");
}
continue;
}
if (n.ConditionalExpression.check(parent) &&
path.name === "test") {
if (parent.test !== node) {
throw new Error("Nodes must be equal");
}
continue;
}
if (isBinary(parent) &&
path.name === "left") {
if (parent.left !== node) {
throw new Error("Nodes must be equal");
}
continue;
}
if (n.UnaryExpression.check(parent) &&
!parent.prefix &&
path.name === "argument") {
if (parent.argument !== node) {
throw new Error("Nodes must be equal");
}
continue;
}
return false;
}
return true;
}
/**
* Pruning certain nodes will result in empty or incomplete nodes, here we clean those nodes up.
*/
function cleanUpNodesAfterPrune(remainingNodePath) {
if (n.VariableDeclaration.check(remainingNodePath.node)) {
var declarations = remainingNodePath.get('declarations').value;
if (!declarations || declarations.length === 0) {
return remainingNodePath.prune();
}
}
else if (n.ExpressionStatement.check(remainingNodePath.node)) {
if (!remainingNodePath.get('expression').value) {
return remainingNodePath.prune();
}
}
else if (n.IfStatement.check(remainingNodePath.node)) {
cleanUpIfStatementAfterPrune(remainingNodePath);
}
return remainingNodePath;
}
function cleanUpIfStatementAfterPrune(ifStatement) {
var testExpression = ifStatement.get('test').value;
var alternate = ifStatement.get('alternate').value;
var consequent = ifStatement.get('consequent').value;
if (!consequent && !alternate) {
var testExpressionStatement = b.expressionStatement(testExpression);
ifStatement.replace(testExpressionStatement);
}
else if (!consequent && alternate) {
var negatedTestExpression = b.unaryExpression('!', testExpression, true);
if (n.UnaryExpression.check(testExpression) && testExpression.operator === '!') {
negatedTestExpression = testExpression.argument;
}
ifStatement.get("test").replace(negatedTestExpression);
ifStatement.get("consequent").replace(alternate);
ifStatement.get("alternate").replace();
}
}
return NodePath;
}
exports.default = nodePathPlugin;
module.exports = exports["default"];

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import { Fork, Omit } from "../types";
import { ASTNode } from "./types";
import { NodePath } from "./node-path";
export interface PathVisitor {
_reusableContextStack: any;
_methodNameTable: any;
_shouldVisitComments: any;
Context: any;
_visiting: any;
_changeReported: any;
_abortRequested: boolean;
visit(...args: any[]): any;
reset(...args: any[]): any;
visitWithoutReset(path: any): any;
AbortRequest: any;
abort(): void;
visitor: any;
acquireContext(path: any): any;
releaseContext(context: any): void;
reportChanged(): void;
wasChangeReported(): any;
}
export interface PathVisitorStatics {
fromMethodsObject(methods?: any): Visitor;
visit<M = {}>(node: ASTNode, methods?: import("../gen/visitor").Visitor<M>): any;
}
export interface PathVisitorConstructor extends PathVisitorStatics {
new (): PathVisitor;
}
export interface Visitor extends PathVisitor {
}
export interface VisitorConstructor extends PathVisitorStatics {
new (): Visitor;
}
export interface VisitorMethods {
[visitorMethod: string]: (path: NodePath) => any;
}
export interface SharedContextMethods {
currentPath: any;
needToCallTraverse: boolean;
Context: any;
visitor: any;
reset(path: any, ...args: any[]): any;
invokeVisitorMethod(methodName: string): any;
traverse(path: any, newVisitor?: VisitorMethods): any;
visit(path: any, newVisitor?: VisitorMethods): any;
reportChanged(): void;
abort(): void;
}
export interface Context extends Omit<PathVisitor, "visit" | "reset">, SharedContextMethods {
}
export default function pathVisitorPlugin(fork: Fork): PathVisitorConstructor;

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node_modules/ast-types/lib/path-visitor.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var types_1 = tslib_1.__importDefault(require("./types"));
var node_path_1 = tslib_1.__importDefault(require("./node-path"));
var hasOwn = Object.prototype.hasOwnProperty;
function pathVisitorPlugin(fork) {
var types = fork.use(types_1.default);
var NodePath = fork.use(node_path_1.default);
var isArray = types.builtInTypes.array;
var isObject = types.builtInTypes.object;
var isFunction = types.builtInTypes.function;
var undefined;
var PathVisitor = function PathVisitor() {
if (!(this instanceof PathVisitor)) {
throw new Error("PathVisitor constructor cannot be invoked without 'new'");
}
// Permanent state.
this._reusableContextStack = [];
this._methodNameTable = computeMethodNameTable(this);
this._shouldVisitComments =
hasOwn.call(this._methodNameTable, "Block") ||
hasOwn.call(this._methodNameTable, "Line");
this.Context = makeContextConstructor(this);
// State reset every time PathVisitor.prototype.visit is called.
this._visiting = false;
this._changeReported = false;
};
function computeMethodNameTable(visitor) {
var typeNames = Object.create(null);
for (var methodName in visitor) {
if (/^visit[A-Z]/.test(methodName)) {
typeNames[methodName.slice("visit".length)] = true;
}
}
var supertypeTable = types.computeSupertypeLookupTable(typeNames);
var methodNameTable = Object.create(null);
var typeNameKeys = Object.keys(supertypeTable);
var typeNameCount = typeNameKeys.length;
for (var i = 0; i < typeNameCount; ++i) {
var typeName = typeNameKeys[i];
methodName = "visit" + supertypeTable[typeName];
if (isFunction.check(visitor[methodName])) {
methodNameTable[typeName] = methodName;
}
}
return methodNameTable;
}
PathVisitor.fromMethodsObject = function fromMethodsObject(methods) {
if (methods instanceof PathVisitor) {
return methods;
}
if (!isObject.check(methods)) {
// An empty visitor?
return new PathVisitor;
}
var Visitor = function Visitor() {
if (!(this instanceof Visitor)) {
throw new Error("Visitor constructor cannot be invoked without 'new'");
}
PathVisitor.call(this);
};
var Vp = Visitor.prototype = Object.create(PVp);
Vp.constructor = Visitor;
extend(Vp, methods);
extend(Visitor, PathVisitor);
isFunction.assert(Visitor.fromMethodsObject);
isFunction.assert(Visitor.visit);
return new Visitor;
};
function extend(target, source) {
for (var property in source) {
if (hasOwn.call(source, property)) {
target[property] = source[property];
}
}
return target;
}
PathVisitor.visit = function visit(node, methods) {
return PathVisitor.fromMethodsObject(methods).visit(node);
};
var PVp = PathVisitor.prototype;
PVp.visit = function () {
if (this._visiting) {
throw new Error("Recursively calling visitor.visit(path) resets visitor state. " +
"Try this.visit(path) or this.traverse(path) instead.");
}
// Private state that needs to be reset before every traversal.
this._visiting = true;
this._changeReported = false;
this._abortRequested = false;
var argc = arguments.length;
var args = new Array(argc);
for (var i = 0; i < argc; ++i) {
args[i] = arguments[i];
}
if (!(args[0] instanceof NodePath)) {
args[0] = new NodePath({ root: args[0] }).get("root");
}
// Called with the same arguments as .visit.
this.reset.apply(this, args);
var didNotThrow;
try {
var root = this.visitWithoutReset(args[0]);
didNotThrow = true;
}
finally {
this._visiting = false;
if (!didNotThrow && this._abortRequested) {
// If this.visitWithoutReset threw an exception and
// this._abortRequested was set to true, return the root of
// the AST instead of letting the exception propagate, so that
// client code does not have to provide a try-catch block to
// intercept the AbortRequest exception. Other kinds of
// exceptions will propagate without being intercepted and
// rethrown by a catch block, so their stacks will accurately
// reflect the original throwing context.
return args[0].value;
}
}
return root;
};
PVp.AbortRequest = function AbortRequest() { };
PVp.abort = function () {
var visitor = this;
visitor._abortRequested = true;
var request = new visitor.AbortRequest();
// If you decide to catch this exception and stop it from propagating,
// make sure to call its cancel method to avoid silencing other
// exceptions that might be thrown later in the traversal.
request.cancel = function () {
visitor._abortRequested = false;
};
throw request;
};
PVp.reset = function (_path /*, additional arguments */) {
// Empty stub; may be reassigned or overridden by subclasses.
};
PVp.visitWithoutReset = function (path) {
if (this instanceof this.Context) {
// Since this.Context.prototype === this, there's a chance we
// might accidentally call context.visitWithoutReset. If that
// happens, re-invoke the method against context.visitor.
return this.visitor.visitWithoutReset(path);
}
if (!(path instanceof NodePath)) {
throw new Error("");
}
var value = path.value;
var methodName = value &&
typeof value === "object" &&
typeof value.type === "string" &&
this._methodNameTable[value.type];
if (methodName) {
var context = this.acquireContext(path);
try {
return context.invokeVisitorMethod(methodName);
}
finally {
this.releaseContext(context);
}
}
else {
// If there was no visitor method to call, visit the children of
// this node generically.
return visitChildren(path, this);
}
};
function visitChildren(path, visitor) {
if (!(path instanceof NodePath)) {
throw new Error("");
}
if (!(visitor instanceof PathVisitor)) {
throw new Error("");
}
var value = path.value;
if (isArray.check(value)) {
path.each(visitor.visitWithoutReset, visitor);
}
else if (!isObject.check(value)) {
// No children to visit.
}
else {
var childNames = types.getFieldNames(value);
// The .comments field of the Node type is hidden, so we only
// visit it if the visitor defines visitBlock or visitLine, and
// value.comments is defined.
if (visitor._shouldVisitComments &&
value.comments &&
childNames.indexOf("comments") < 0) {
childNames.push("comments");
}
var childCount = childNames.length;
var childPaths = [];
for (var i = 0; i < childCount; ++i) {
var childName = childNames[i];
if (!hasOwn.call(value, childName)) {
value[childName] = types.getFieldValue(value, childName);
}
childPaths.push(path.get(childName));
}
for (var i = 0; i < childCount; ++i) {
visitor.visitWithoutReset(childPaths[i]);
}
}
return path.value;
}
PVp.acquireContext = function (path) {
if (this._reusableContextStack.length === 0) {
return new this.Context(path);
}
return this._reusableContextStack.pop().reset(path);
};
PVp.releaseContext = function (context) {
if (!(context instanceof this.Context)) {
throw new Error("");
}
this._reusableContextStack.push(context);
context.currentPath = null;
};
PVp.reportChanged = function () {
this._changeReported = true;
};
PVp.wasChangeReported = function () {
return this._changeReported;
};
function makeContextConstructor(visitor) {
function Context(path) {
if (!(this instanceof Context)) {
throw new Error("");
}
if (!(this instanceof PathVisitor)) {
throw new Error("");
}
if (!(path instanceof NodePath)) {
throw new Error("");
}
Object.defineProperty(this, "visitor", {
value: visitor,
writable: false,
enumerable: true,
configurable: false
});
this.currentPath = path;
this.needToCallTraverse = true;
Object.seal(this);
}
if (!(visitor instanceof PathVisitor)) {
throw new Error("");
}
// Note that the visitor object is the prototype of Context.prototype,
// so all visitor methods are inherited by context objects.
var Cp = Context.prototype = Object.create(visitor);
Cp.constructor = Context;
extend(Cp, sharedContextProtoMethods);
return Context;
}
// Every PathVisitor has a different this.Context constructor and
// this.Context.prototype object, but those prototypes can all use the
// same reset, invokeVisitorMethod, and traverse function objects.
var sharedContextProtoMethods = Object.create(null);
sharedContextProtoMethods.reset =
function reset(path) {
if (!(this instanceof this.Context)) {
throw new Error("");
}
if (!(path instanceof NodePath)) {
throw new Error("");
}
this.currentPath = path;
this.needToCallTraverse = true;
return this;
};
sharedContextProtoMethods.invokeVisitorMethod =
function invokeVisitorMethod(methodName) {
if (!(this instanceof this.Context)) {
throw new Error("");
}
if (!(this.currentPath instanceof NodePath)) {
throw new Error("");
}
var result = this.visitor[methodName].call(this, this.currentPath);
if (result === false) {
// Visitor methods return false to indicate that they have handled
// their own traversal needs, and we should not complain if
// this.needToCallTraverse is still true.
this.needToCallTraverse = false;
}
else if (result !== undefined) {
// Any other non-undefined value returned from the visitor method
// is interpreted as a replacement value.
this.currentPath = this.currentPath.replace(result)[0];
if (this.needToCallTraverse) {
// If this.traverse still hasn't been called, visit the
// children of the replacement node.
this.traverse(this.currentPath);
}
}
if (this.needToCallTraverse !== false) {
throw new Error("Must either call this.traverse or return false in " + methodName);
}
var path = this.currentPath;
return path && path.value;
};
sharedContextProtoMethods.traverse =
function traverse(path, newVisitor) {
if (!(this instanceof this.Context)) {
throw new Error("");
}
if (!(path instanceof NodePath)) {
throw new Error("");
}
if (!(this.currentPath instanceof NodePath)) {
throw new Error("");
}
this.needToCallTraverse = false;
return visitChildren(path, PathVisitor.fromMethodsObject(newVisitor || this.visitor));
};
sharedContextProtoMethods.visit =
function visit(path, newVisitor) {
if (!(this instanceof this.Context)) {
throw new Error("");
}
if (!(path instanceof NodePath)) {
throw new Error("");
}
if (!(this.currentPath instanceof NodePath)) {
throw new Error("");
}
this.needToCallTraverse = false;
return PathVisitor.fromMethodsObject(newVisitor || this.visitor).visitWithoutReset(path);
};
sharedContextProtoMethods.reportChanged = function reportChanged() {
this.visitor.reportChanged();
};
sharedContextProtoMethods.abort = function abort() {
this.needToCallTraverse = false;
this.visitor.abort();
};
return PathVisitor;
}
exports.default = pathVisitorPlugin;
module.exports = exports["default"];

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node_modules/ast-types/lib/path.d.ts generated vendored Normal file
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import { Fork } from "../types";
import { ASTNode } from "./types";
export interface Path<V = any> {
value: V;
parentPath: any;
name: any;
__childCache: object | null;
getValueProperty(name: any): any;
get(...names: any[]): any;
each(callback: any, context: any): any;
map(callback: any, context: any): any;
filter(callback: any, context: any): any;
shift(): any;
unshift(...args: any[]): any;
push(...args: any[]): any;
pop(): any;
insertAt(index: number, ...args: any[]): any;
insertBefore(...args: any[]): any;
insertAfter(...args: any[]): any;
replace(replacement?: ASTNode, ...args: ASTNode[]): any;
}
export interface PathConstructor {
new <V = any>(value: any, parentPath?: any, name?: any): Path<V>;
}
export default function pathPlugin(fork: Fork): PathConstructor;

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node_modules/ast-types/lib/path.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var types_1 = tslib_1.__importDefault(require("./types"));
var Op = Object.prototype;
var hasOwn = Op.hasOwnProperty;
function pathPlugin(fork) {
var types = fork.use(types_1.default);
var isArray = types.builtInTypes.array;
var isNumber = types.builtInTypes.number;
var Path = function Path(value, parentPath, name) {
if (!(this instanceof Path)) {
throw new Error("Path constructor cannot be invoked without 'new'");
}
if (parentPath) {
if (!(parentPath instanceof Path)) {
throw new Error("");
}
}
else {
parentPath = null;
name = null;
}
// The value encapsulated by this Path, generally equal to
// parentPath.value[name] if we have a parentPath.
this.value = value;
// The immediate parent Path of this Path.
this.parentPath = parentPath;
// The name of the property of parentPath.value through which this
// Path's value was reached.
this.name = name;
// Calling path.get("child") multiple times always returns the same
// child Path object, for both performance and consistency reasons.
this.__childCache = null;
};
var Pp = Path.prototype;
function getChildCache(path) {
// Lazily create the child cache. This also cheapens cache
// invalidation, since you can just reset path.__childCache to null.
return path.__childCache || (path.__childCache = Object.create(null));
}
function getChildPath(path, name) {
var cache = getChildCache(path);
var actualChildValue = path.getValueProperty(name);
var childPath = cache[name];
if (!hasOwn.call(cache, name) ||
// Ensure consistency between cache and reality.
childPath.value !== actualChildValue) {
childPath = cache[name] = new path.constructor(actualChildValue, path, name);
}
return childPath;
}
// This method is designed to be overridden by subclasses that need to
// handle missing properties, etc.
Pp.getValueProperty = function getValueProperty(name) {
return this.value[name];
};
Pp.get = function get() {
var names = [];
for (var _i = 0; _i < arguments.length; _i++) {
names[_i] = arguments[_i];
}
var path = this;
var count = names.length;
for (var i = 0; i < count; ++i) {
path = getChildPath(path, names[i]);
}
return path;
};
Pp.each = function each(callback, context) {
var childPaths = [];
var len = this.value.length;
var i = 0;
// Collect all the original child paths before invoking the callback.
for (var i = 0; i < len; ++i) {
if (hasOwn.call(this.value, i)) {
childPaths[i] = this.get(i);
}
}
// Invoke the callback on just the original child paths, regardless of
// any modifications made to the array by the callback. I chose these
// semantics over cleverly invoking the callback on new elements because
// this way is much easier to reason about.
context = context || this;
for (i = 0; i < len; ++i) {
if (hasOwn.call(childPaths, i)) {
callback.call(context, childPaths[i]);
}
}
};
Pp.map = function map(callback, context) {
var result = [];
this.each(function (childPath) {
result.push(callback.call(this, childPath));
}, context);
return result;
};
Pp.filter = function filter(callback, context) {
var result = [];
this.each(function (childPath) {
if (callback.call(this, childPath)) {
result.push(childPath);
}
}, context);
return result;
};
function emptyMoves() { }
function getMoves(path, offset, start, end) {
isArray.assert(path.value);
if (offset === 0) {
return emptyMoves;
}
var length = path.value.length;
if (length < 1) {
return emptyMoves;
}
var argc = arguments.length;
if (argc === 2) {
start = 0;
end = length;
}
else if (argc === 3) {
start = Math.max(start, 0);
end = length;
}
else {
start = Math.max(start, 0);
end = Math.min(end, length);
}
isNumber.assert(start);
isNumber.assert(end);
var moves = Object.create(null);
var cache = getChildCache(path);
for (var i = start; i < end; ++i) {
if (hasOwn.call(path.value, i)) {
var childPath = path.get(i);
if (childPath.name !== i) {
throw new Error("");
}
var newIndex = i + offset;
childPath.name = newIndex;
moves[newIndex] = childPath;
delete cache[i];
}
}
delete cache.length;
return function () {
for (var newIndex in moves) {
var childPath = moves[newIndex];
if (childPath.name !== +newIndex) {
throw new Error("");
}
cache[newIndex] = childPath;
path.value[newIndex] = childPath.value;
}
};
}
Pp.shift = function shift() {
var move = getMoves(this, -1);
var result = this.value.shift();
move();
return result;
};
Pp.unshift = function unshift() {
var args = [];
for (var _i = 0; _i < arguments.length; _i++) {
args[_i] = arguments[_i];
}
var move = getMoves(this, args.length);
var result = this.value.unshift.apply(this.value, args);
move();
return result;
};
Pp.push = function push() {
var args = [];
for (var _i = 0; _i < arguments.length; _i++) {
args[_i] = arguments[_i];
}
isArray.assert(this.value);
delete getChildCache(this).length;
return this.value.push.apply(this.value, args);
};
Pp.pop = function pop() {
isArray.assert(this.value);
var cache = getChildCache(this);
delete cache[this.value.length - 1];
delete cache.length;
return this.value.pop();
};
Pp.insertAt = function insertAt(index) {
var argc = arguments.length;
var move = getMoves(this, argc - 1, index);
if (move === emptyMoves && argc <= 1) {
return this;
}
index = Math.max(index, 0);
for (var i = 1; i < argc; ++i) {
this.value[index + i - 1] = arguments[i];
}
move();
return this;
};
Pp.insertBefore = function insertBefore() {
var args = [];
for (var _i = 0; _i < arguments.length; _i++) {
args[_i] = arguments[_i];
}
var pp = this.parentPath;
var argc = args.length;
var insertAtArgs = [this.name];
for (var i = 0; i < argc; ++i) {
insertAtArgs.push(args[i]);
}
return pp.insertAt.apply(pp, insertAtArgs);
};
Pp.insertAfter = function insertAfter() {
var args = [];
for (var _i = 0; _i < arguments.length; _i++) {
args[_i] = arguments[_i];
}
var pp = this.parentPath;
var argc = args.length;
var insertAtArgs = [this.name + 1];
for (var i = 0; i < argc; ++i) {
insertAtArgs.push(args[i]);
}
return pp.insertAt.apply(pp, insertAtArgs);
};
function repairRelationshipWithParent(path) {
if (!(path instanceof Path)) {
throw new Error("");
}
var pp = path.parentPath;
if (!pp) {
// Orphan paths have no relationship to repair.
return path;
}
var parentValue = pp.value;
var parentCache = getChildCache(pp);
// Make sure parentCache[path.name] is populated.
if (parentValue[path.name] === path.value) {
parentCache[path.name] = path;
}
else if (isArray.check(parentValue)) {
// Something caused path.name to become out of date, so attempt to
// recover by searching for path.value in parentValue.
var i = parentValue.indexOf(path.value);
if (i >= 0) {
parentCache[path.name = i] = path;
}
}
else {
// If path.value disagrees with parentValue[path.name], and
// path.name is not an array index, let path.value become the new
// parentValue[path.name] and update parentCache accordingly.
parentValue[path.name] = path.value;
parentCache[path.name] = path;
}
if (parentValue[path.name] !== path.value) {
throw new Error("");
}
if (path.parentPath.get(path.name) !== path) {
throw new Error("");
}
return path;
}
Pp.replace = function replace(replacement) {
var results = [];
var parentValue = this.parentPath.value;
var parentCache = getChildCache(this.parentPath);
var count = arguments.length;
repairRelationshipWithParent(this);
if (isArray.check(parentValue)) {
var originalLength = parentValue.length;
var move = getMoves(this.parentPath, count - 1, this.name + 1);
var spliceArgs = [this.name, 1];
for (var i = 0; i < count; ++i) {
spliceArgs.push(arguments[i]);
}
var splicedOut = parentValue.splice.apply(parentValue, spliceArgs);
if (splicedOut[0] !== this.value) {
throw new Error("");
}
if (parentValue.length !== (originalLength - 1 + count)) {
throw new Error("");
}
move();
if (count === 0) {
delete this.value;
delete parentCache[this.name];
this.__childCache = null;
}
else {
if (parentValue[this.name] !== replacement) {
throw new Error("");
}
if (this.value !== replacement) {
this.value = replacement;
this.__childCache = null;
}
for (i = 0; i < count; ++i) {
results.push(this.parentPath.get(this.name + i));
}
if (results[0] !== this) {
throw new Error("");
}
}
}
else if (count === 1) {
if (this.value !== replacement) {
this.__childCache = null;
}
this.value = parentValue[this.name] = replacement;
results.push(this);
}
else if (count === 0) {
delete parentValue[this.name];
delete this.value;
this.__childCache = null;
// Leave this path cached as parentCache[this.name], even though
// it no longer has a value defined.
}
else {
throw new Error("Could not replace path");
}
return results;
};
return Path;
}
exports.default = pathPlugin;
module.exports = exports["default"];

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node_modules/ast-types/lib/scope.d.ts generated vendored Normal file
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import { Fork } from "../types";
export interface Scope {
path: any;
node: any;
isGlobal: boolean;
depth: number;
parent: any;
bindings: any;
types: any;
didScan: boolean;
declares(name: any): any;
declaresType(name: any): any;
declareTemporary(prefix?: any): any;
injectTemporary(identifier: any, init: any): any;
scan(force?: any): any;
getBindings(): any;
getTypes(): any;
lookup(name: any): any;
lookupType(name: any): any;
getGlobalScope(): Scope;
}
export interface ScopeConstructor {
new (path: any, parentScope: any): Scope;
isEstablishedBy(node: any): any;
}
export default function scopePlugin(fork: Fork): ScopeConstructor;

318
node_modules/ast-types/lib/scope.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var types_1 = tslib_1.__importDefault(require("./types"));
var hasOwn = Object.prototype.hasOwnProperty;
function scopePlugin(fork) {
var types = fork.use(types_1.default);
var Type = types.Type;
var namedTypes = types.namedTypes;
var Node = namedTypes.Node;
var Expression = namedTypes.Expression;
var isArray = types.builtInTypes.array;
var b = types.builders;
var Scope = function Scope(path, parentScope) {
if (!(this instanceof Scope)) {
throw new Error("Scope constructor cannot be invoked without 'new'");
}
ScopeType.assert(path.value);
var depth;
if (parentScope) {
if (!(parentScope instanceof Scope)) {
throw new Error("");
}
depth = parentScope.depth + 1;
}
else {
parentScope = null;
depth = 0;
}
Object.defineProperties(this, {
path: { value: path },
node: { value: path.value },
isGlobal: { value: !parentScope, enumerable: true },
depth: { value: depth },
parent: { value: parentScope },
bindings: { value: {} },
types: { value: {} },
});
};
var scopeTypes = [
// Program nodes introduce global scopes.
namedTypes.Program,
// Function is the supertype of FunctionExpression,
// FunctionDeclaration, ArrowExpression, etc.
namedTypes.Function,
// In case you didn't know, the caught parameter shadows any variable
// of the same name in an outer scope.
namedTypes.CatchClause
];
var ScopeType = Type.or.apply(Type, scopeTypes);
Scope.isEstablishedBy = function (node) {
return ScopeType.check(node);
};
var Sp = Scope.prototype;
// Will be overridden after an instance lazily calls scanScope.
Sp.didScan = false;
Sp.declares = function (name) {
this.scan();
return hasOwn.call(this.bindings, name);
};
Sp.declaresType = function (name) {
this.scan();
return hasOwn.call(this.types, name);
};
Sp.declareTemporary = function (prefix) {
if (prefix) {
if (!/^[a-z$_]/i.test(prefix)) {
throw new Error("");
}
}
else {
prefix = "t$";
}
// Include this.depth in the name to make sure the name does not
// collide with any variables in nested/enclosing scopes.
prefix += this.depth.toString(36) + "$";
this.scan();
var index = 0;
while (this.declares(prefix + index)) {
++index;
}
var name = prefix + index;
return this.bindings[name] = types.builders.identifier(name);
};
Sp.injectTemporary = function (identifier, init) {
identifier || (identifier = this.declareTemporary());
var bodyPath = this.path.get("body");
if (namedTypes.BlockStatement.check(bodyPath.value)) {
bodyPath = bodyPath.get("body");
}
bodyPath.unshift(b.variableDeclaration("var", [b.variableDeclarator(identifier, init || null)]));
return identifier;
};
Sp.scan = function (force) {
if (force || !this.didScan) {
for (var name in this.bindings) {
// Empty out this.bindings, just in cases.
delete this.bindings[name];
}
scanScope(this.path, this.bindings, this.types);
this.didScan = true;
}
};
Sp.getBindings = function () {
this.scan();
return this.bindings;
};
Sp.getTypes = function () {
this.scan();
return this.types;
};
function scanScope(path, bindings, scopeTypes) {
var node = path.value;
ScopeType.assert(node);
if (namedTypes.CatchClause.check(node)) {
// A catch clause establishes a new scope but the only variable
// bound in that scope is the catch parameter. Any other
// declarations create bindings in the outer scope.
var param = path.get("param");
if (param.value) {
addPattern(param, bindings);
}
}
else {
recursiveScanScope(path, bindings, scopeTypes);
}
}
function recursiveScanScope(path, bindings, scopeTypes) {
var node = path.value;
if (path.parent &&
namedTypes.FunctionExpression.check(path.parent.node) &&
path.parent.node.id) {
addPattern(path.parent.get("id"), bindings);
}
if (!node) {
// None of the remaining cases matter if node is falsy.
}
else if (isArray.check(node)) {
path.each(function (childPath) {
recursiveScanChild(childPath, bindings, scopeTypes);
});
}
else if (namedTypes.Function.check(node)) {
path.get("params").each(function (paramPath) {
addPattern(paramPath, bindings);
});
recursiveScanChild(path.get("body"), bindings, scopeTypes);
}
else if ((namedTypes.TypeAlias && namedTypes.TypeAlias.check(node)) ||
(namedTypes.InterfaceDeclaration && namedTypes.InterfaceDeclaration.check(node)) ||
(namedTypes.TSTypeAliasDeclaration && namedTypes.TSTypeAliasDeclaration.check(node)) ||
(namedTypes.TSInterfaceDeclaration && namedTypes.TSInterfaceDeclaration.check(node))) {
addTypePattern(path.get("id"), scopeTypes);
}
else if (namedTypes.VariableDeclarator.check(node)) {
addPattern(path.get("id"), bindings);
recursiveScanChild(path.get("init"), bindings, scopeTypes);
}
else if (node.type === "ImportSpecifier" ||
node.type === "ImportNamespaceSpecifier" ||
node.type === "ImportDefaultSpecifier") {
addPattern(
// Esprima used to use the .name field to refer to the local
// binding identifier for ImportSpecifier nodes, but .id for
// ImportNamespaceSpecifier and ImportDefaultSpecifier nodes.
// ESTree/Acorn/ESpree use .local for all three node types.
path.get(node.local ? "local" :
node.name ? "name" : "id"), bindings);
}
else if (Node.check(node) && !Expression.check(node)) {
types.eachField(node, function (name, child) {
var childPath = path.get(name);
if (!pathHasValue(childPath, child)) {
throw new Error("");
}
recursiveScanChild(childPath, bindings, scopeTypes);
});
}
}
function pathHasValue(path, value) {
if (path.value === value) {
return true;
}
// Empty arrays are probably produced by defaults.emptyArray, in which
// case is makes sense to regard them as equivalent, if not ===.
if (Array.isArray(path.value) &&
path.value.length === 0 &&
Array.isArray(value) &&
value.length === 0) {
return true;
}
return false;
}
function recursiveScanChild(path, bindings, scopeTypes) {
var node = path.value;
if (!node || Expression.check(node)) {
// Ignore falsy values and Expressions.
}
else if (namedTypes.FunctionDeclaration.check(node) &&
node.id !== null) {
addPattern(path.get("id"), bindings);
}
else if (namedTypes.ClassDeclaration &&
namedTypes.ClassDeclaration.check(node)) {
addPattern(path.get("id"), bindings);
}
else if (ScopeType.check(node)) {
if (namedTypes.CatchClause.check(node) &&
// TODO Broaden this to accept any pattern.
namedTypes.Identifier.check(node.param)) {
var catchParamName = node.param.name;
var hadBinding = hasOwn.call(bindings, catchParamName);
// Any declarations that occur inside the catch body that do
// not have the same name as the catch parameter should count
// as bindings in the outer scope.
recursiveScanScope(path.get("body"), bindings, scopeTypes);
// If a new binding matching the catch parameter name was
// created while scanning the catch body, ignore it because it
// actually refers to the catch parameter and not the outer
// scope that we're currently scanning.
if (!hadBinding) {
delete bindings[catchParamName];
}
}
}
else {
recursiveScanScope(path, bindings, scopeTypes);
}
}
function addPattern(patternPath, bindings) {
var pattern = patternPath.value;
namedTypes.Pattern.assert(pattern);
if (namedTypes.Identifier.check(pattern)) {
if (hasOwn.call(bindings, pattern.name)) {
bindings[pattern.name].push(patternPath);
}
else {
bindings[pattern.name] = [patternPath];
}
}
else if (namedTypes.AssignmentPattern &&
namedTypes.AssignmentPattern.check(pattern)) {
addPattern(patternPath.get('left'), bindings);
}
else if (namedTypes.ObjectPattern &&
namedTypes.ObjectPattern.check(pattern)) {
patternPath.get('properties').each(function (propertyPath) {
var property = propertyPath.value;
if (namedTypes.Pattern.check(property)) {
addPattern(propertyPath, bindings);
}
else if (namedTypes.Property.check(property)) {
addPattern(propertyPath.get('value'), bindings);
}
else if (namedTypes.SpreadProperty &&
namedTypes.SpreadProperty.check(property)) {
addPattern(propertyPath.get('argument'), bindings);
}
});
}
else if (namedTypes.ArrayPattern &&
namedTypes.ArrayPattern.check(pattern)) {
patternPath.get('elements').each(function (elementPath) {
var element = elementPath.value;
if (namedTypes.Pattern.check(element)) {
addPattern(elementPath, bindings);
}
else if (namedTypes.SpreadElement &&
namedTypes.SpreadElement.check(element)) {
addPattern(elementPath.get("argument"), bindings);
}
});
}
else if (namedTypes.PropertyPattern &&
namedTypes.PropertyPattern.check(pattern)) {
addPattern(patternPath.get('pattern'), bindings);
}
else if ((namedTypes.SpreadElementPattern &&
namedTypes.SpreadElementPattern.check(pattern)) ||
(namedTypes.SpreadPropertyPattern &&
namedTypes.SpreadPropertyPattern.check(pattern))) {
addPattern(patternPath.get('argument'), bindings);
}
}
function addTypePattern(patternPath, types) {
var pattern = patternPath.value;
namedTypes.Pattern.assert(pattern);
if (namedTypes.Identifier.check(pattern)) {
if (hasOwn.call(types, pattern.name)) {
types[pattern.name].push(patternPath);
}
else {
types[pattern.name] = [patternPath];
}
}
}
Sp.lookup = function (name) {
for (var scope = this; scope; scope = scope.parent)
if (scope.declares(name))
break;
return scope;
};
Sp.lookupType = function (name) {
for (var scope = this; scope; scope = scope.parent)
if (scope.declaresType(name))
break;
return scope;
};
Sp.getGlobalScope = function () {
var scope = this;
while (!scope.isGlobal)
scope = scope.parent;
return scope;
};
return Scope;
}
exports.default = scopePlugin;
module.exports = exports["default"];

13
node_modules/ast-types/lib/shared.d.ts generated vendored Normal file
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import { Fork } from "../types";
export default function (fork: Fork): {
geq: (than: any) => import("./types").Type<unknown>;
defaults: {
null: () => null;
emptyArray: () => never[];
false: () => boolean;
true: () => boolean;
undefined: () => void;
"use strict": () => string;
};
isPrimitive: import("./types").Type<unknown>;
};

47
node_modules/ast-types/lib/shared.js generated vendored Normal file
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"use strict";;
Object.defineProperty(exports, "__esModule", { value: true });
var tslib_1 = require("tslib");
var types_1 = tslib_1.__importDefault(require("./types"));
function default_1(fork) {
var types = fork.use(types_1.default);
var Type = types.Type;
var builtin = types.builtInTypes;
var isNumber = builtin.number;
// An example of constructing a new type with arbitrary constraints from
// an existing type.
function geq(than) {
return Type.from(function (value) { return isNumber.check(value) && value >= than; }, isNumber + " >= " + than);
}
;
// Default value-returning functions that may optionally be passed as a
// third argument to Def.prototype.field.
var defaults = {
// Functions were used because (among other reasons) that's the most
// elegant way to allow for the emptyArray one always to give a new
// array instance.
"null": function () { return null; },
"emptyArray": function () { return []; },
"false": function () { return false; },
"true": function () { return true; },
"undefined": function () { },
"use strict": function () { return "use strict"; }
};
var naiveIsPrimitive = Type.or(builtin.string, builtin.number, builtin.boolean, builtin.null, builtin.undefined);
var isPrimitive = Type.from(function (value) {
if (value === null)
return true;
var type = typeof value;
if (type === "object" ||
type === "function") {
return false;
}
return true;
}, naiveIsPrimitive.toString());
return {
geq: geq,
defaults: defaults,
isPrimitive: isPrimitive,
};
}
exports.default = default_1;
module.exports = exports["default"];

136
node_modules/ast-types/lib/types.d.ts generated vendored Normal file
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import { Fork } from "../types";
declare type Deep = boolean | ((type: Type<any>, value: any) => void);
export declare type Type<T> = ArrayType<T> | IdentityType<T> | ObjectType<T> | OrType<T> | PredicateType<T>;
export interface AnyType {
toString(): string;
check(value: any, deep?: Deep): boolean;
assert(value: any, deep?: Deep): boolean;
arrayOf(): AnyType;
}
declare abstract class BaseType<T> {
abstract toString(): string;
abstract check(value: any, deep?: Deep): value is T;
assert(value: any, deep?: Deep): value is T;
arrayOf(): Type<T[]>;
}
declare class ArrayType<T> extends BaseType<T> {
readonly elemType: Type<T extends (infer E)[] ? E : never>;
readonly kind: "ArrayType";
constructor(elemType: Type<T extends (infer E)[] ? E : never>);
toString(): string;
check(value: any, deep?: Deep): value is T;
}
declare class IdentityType<T> extends BaseType<T> {
readonly value: T;
readonly kind: "IdentityType";
constructor(value: T);
toString(): string;
check(value: any, deep?: Deep): value is T;
}
declare class ObjectType<T> extends BaseType<T> {
readonly fields: Field<any>[];
readonly kind: "ObjectType";
constructor(fields: Field<any>[]);
toString(): string;
check(value: any, deep?: Deep): value is T;
}
declare class OrType<T> extends BaseType<T> {
readonly types: Type<any>[];
readonly kind: "OrType";
constructor(types: Type<any>[]);
toString(): string;
check(value: any, deep?: Deep): value is T;
}
declare class PredicateType<T> extends BaseType<T> {
readonly name: string;
readonly predicate: (value: any, deep?: Deep) => boolean;
readonly kind: "PredicateType";
constructor(name: string, predicate: (value: any, deep?: Deep) => boolean);
toString(): string;
check(value: any, deep?: Deep): value is T;
}
export declare abstract class Def<T = any> {
readonly type: Type<T>;
readonly typeName: string;
baseNames: string[];
ownFields: {
[name: string]: Field<any>;
};
allSupertypes: {
[name: string]: Def<any>;
};
supertypeList: string[];
allFields: {
[name: string]: Field<any>;
};
fieldNames: string[];
finalized: boolean;
buildable: boolean;
buildParams: string[];
constructor(type: Type<T>, typeName: string);
isSupertypeOf(that: Def<any>): boolean;
checkAllFields(value: any, deep?: any): boolean;
abstract check(value: any, deep?: any): boolean;
bases(...supertypeNames: string[]): this;
abstract build(...buildParams: string[]): this;
abstract field(name: string, type: any, defaultFn?: Function, hidden?: boolean): this;
abstract finalize(): void;
}
declare class Field<T> {
readonly name: string;
readonly type: Type<T>;
readonly defaultFn?: Function | undefined;
readonly hidden: boolean;
constructor(name: string, type: Type<T>, defaultFn?: Function | undefined, hidden?: boolean);
toString(): string;
getValue(obj: {
[key: string]: any;
}): any;
}
declare type FieldType<T> = Field<T>;
export { FieldType as Field };
export interface ASTNode {
type: string;
}
export interface Builder {
(...args: any[]): ASTNode;
from(obj: {
[param: string]: any;
}): ASTNode;
}
export default function typesPlugin(_fork: Fork): {
Type: {
or(...types: any[]): Type<any>;
from<T>(value: any, name?: string | undefined): Type<T>;
def(typeName: string): Def;
hasDef(typeName: string): boolean;
};
builtInTypes: {
string: Type<string>;
function: Type<Function>;
array: Type<any[]>;
object: Type<{
[key: string]: any;
}>;
RegExp: Type<RegExp>;
Date: Type<Date>;
number: Type<number>;
boolean: Type<boolean>;
null: Type<null>;
undefined: Type<undefined>;
};
getSupertypeNames: (typeName: string) => string[];
computeSupertypeLookupTable: (candidates: any) => {
[typeName: string]: any;
};
builders: import("../gen/builders").builders;
defineMethod: (name: any, func?: Function | undefined) => Function;
getBuilderName: (typeName: any) => any;
getStatementBuilderName: (typeName: any) => any;
namedTypes: import("../gen/namedTypes").NamedTypes;
getFieldNames: (object: any) => string[];
getFieldValue: (object: any, fieldName: any) => any;
eachField: (object: any, callback: (name: any, value: any) => any, context?: any) => void;
someField: (object: any, callback: (name: any, value: any) => any, context?: any) => boolean;
finalize: () => void;
};

780
node_modules/ast-types/lib/types.js generated vendored Normal file
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@@ -0,0 +1,780 @@
"use strict";
Object.defineProperty(exports, "__esModule", { value: true });
exports.Def = void 0;
var tslib_1 = require("tslib");
var Op = Object.prototype;
var objToStr = Op.toString;
var hasOwn = Op.hasOwnProperty;
var BaseType = /** @class */ (function () {
function BaseType() {
}
BaseType.prototype.assert = function (value, deep) {
if (!this.check(value, deep)) {
var str = shallowStringify(value);
throw new Error(str + " does not match type " + this);
}
return true;
};
BaseType.prototype.arrayOf = function () {
var elemType = this;
return new ArrayType(elemType);
};
return BaseType;
}());
var ArrayType = /** @class */ (function (_super) {
tslib_1.__extends(ArrayType, _super);
function ArrayType(elemType) {
var _this = _super.call(this) || this;
_this.elemType = elemType;
_this.kind = "ArrayType";
return _this;
}
ArrayType.prototype.toString = function () {
return "[" + this.elemType + "]";
};
ArrayType.prototype.check = function (value, deep) {
var _this = this;
return Array.isArray(value) && value.every(function (elem) { return _this.elemType.check(elem, deep); });
};
return ArrayType;
}(BaseType));
var IdentityType = /** @class */ (function (_super) {
tslib_1.__extends(IdentityType, _super);
function IdentityType(value) {
var _this = _super.call(this) || this;
_this.value = value;
_this.kind = "IdentityType";
return _this;
}
IdentityType.prototype.toString = function () {
return String(this.value);
};
IdentityType.prototype.check = function (value, deep) {
var result = value === this.value;
if (!result && typeof deep === "function") {
deep(this, value);
}
return result;
};
return IdentityType;
}(BaseType));
var ObjectType = /** @class */ (function (_super) {
tslib_1.__extends(ObjectType, _super);
function ObjectType(fields) {
var _this = _super.call(this) || this;
_this.fields = fields;
_this.kind = "ObjectType";
return _this;
}
ObjectType.prototype.toString = function () {
return "{ " + this.fields.join(", ") + " }";
};
ObjectType.prototype.check = function (value, deep) {
return (objToStr.call(value) === objToStr.call({}) &&
this.fields.every(function (field) {
return field.type.check(value[field.name], deep);
}));
};
return ObjectType;
}(BaseType));
var OrType = /** @class */ (function (_super) {
tslib_1.__extends(OrType, _super);
function OrType(types) {
var _this = _super.call(this) || this;
_this.types = types;
_this.kind = "OrType";
return _this;
}
OrType.prototype.toString = function () {
return this.types.join(" | ");
};
OrType.prototype.check = function (value, deep) {
return this.types.some(function (type) {
return type.check(value, deep);
});
};
return OrType;
}(BaseType));
var PredicateType = /** @class */ (function (_super) {
tslib_1.__extends(PredicateType, _super);
function PredicateType(name, predicate) {
var _this = _super.call(this) || this;
_this.name = name;
_this.predicate = predicate;
_this.kind = "PredicateType";
return _this;
}
PredicateType.prototype.toString = function () {
return this.name;
};
PredicateType.prototype.check = function (value, deep) {
var result = this.predicate(value, deep);
if (!result && typeof deep === "function") {
deep(this, value);
}
return result;
};
return PredicateType;
}(BaseType));
var Def = /** @class */ (function () {
function Def(type, typeName) {
this.type = type;
this.typeName = typeName;
this.baseNames = [];
this.ownFields = Object.create(null);
// Includes own typeName. Populated during finalization.
this.allSupertypes = Object.create(null);
// Linear inheritance hierarchy. Populated during finalization.
this.supertypeList = [];
// Includes inherited fields.
this.allFields = Object.create(null);
// Non-hidden keys of allFields.
this.fieldNames = [];
// This property will be overridden as true by individual Def instances
// when they are finalized.
this.finalized = false;
// False by default until .build(...) is called on an instance.
this.buildable = false;
this.buildParams = [];
}
Def.prototype.isSupertypeOf = function (that) {
if (that instanceof Def) {
if (this.finalized !== true ||
that.finalized !== true) {
throw new Error("");
}
return hasOwn.call(that.allSupertypes, this.typeName);
}
else {
throw new Error(that + " is not a Def");
}
};
Def.prototype.checkAllFields = function (value, deep) {
var allFields = this.allFields;
if (this.finalized !== true) {
throw new Error("" + this.typeName);
}
function checkFieldByName(name) {
var field = allFields[name];
var type = field.type;
var child = field.getValue(value);
return type.check(child, deep);
}
return value !== null &&
typeof value === "object" &&
Object.keys(allFields).every(checkFieldByName);
};
Def.prototype.bases = function () {
var supertypeNames = [];
for (var _i = 0; _i < arguments.length; _i++) {
supertypeNames[_i] = arguments[_i];
}
var bases = this.baseNames;
if (this.finalized) {
if (supertypeNames.length !== bases.length) {
throw new Error("");
}
for (var i = 0; i < supertypeNames.length; i++) {
if (supertypeNames[i] !== bases[i]) {
throw new Error("");
}
}
return this;
}
supertypeNames.forEach(function (baseName) {
// This indexOf lookup may be O(n), but the typical number of base
// names is very small, and indexOf is a native Array method.
if (bases.indexOf(baseName) < 0) {
bases.push(baseName);
}
});
return this; // For chaining.
};
return Def;
}());
exports.Def = Def;
var Field = /** @class */ (function () {
function Field(name, type, defaultFn, hidden) {
this.name = name;
this.type = type;
this.defaultFn = defaultFn;
this.hidden = !!hidden;
}
Field.prototype.toString = function () {
return JSON.stringify(this.name) + ": " + this.type;
};
Field.prototype.getValue = function (obj) {
var value = obj[this.name];
if (typeof value !== "undefined") {
return value;
}
if (typeof this.defaultFn === "function") {
value = this.defaultFn.call(obj);
}
return value;
};
return Field;
}());
function shallowStringify(value) {
if (Array.isArray(value)) {
return "[" + value.map(shallowStringify).join(", ") + "]";
}
if (value && typeof value === "object") {
return "{ " + Object.keys(value).map(function (key) {
return key + ": " + value[key];
}).join(", ") + " }";
}
return JSON.stringify(value);
}
function typesPlugin(_fork) {
var Type = {
or: function () {
var types = [];
for (var _i = 0; _i < arguments.length; _i++) {
types[_i] = arguments[_i];
}
return new OrType(types.map(function (type) { return Type.from(type); }));
},
from: function (value, name) {
if (value instanceof ArrayType ||
value instanceof IdentityType ||
value instanceof ObjectType ||
value instanceof OrType ||
value instanceof PredicateType) {
return value;
}
// The Def type is used as a helper for constructing compound
// interface types for AST nodes.
if (value instanceof Def) {
return value.type;
}
// Support [ElemType] syntax.
if (isArray.check(value)) {
if (value.length !== 1) {
throw new Error("only one element type is permitted for typed arrays");
}
return new ArrayType(Type.from(value[0]));
}
// Support { someField: FieldType, ... } syntax.
if (isObject.check(value)) {
return new ObjectType(Object.keys(value).map(function (name) {
return new Field(name, Type.from(value[name], name));
}));
}
if (typeof value === "function") {
var bicfIndex = builtInCtorFns.indexOf(value);
if (bicfIndex >= 0) {
return builtInCtorTypes[bicfIndex];
}
if (typeof name !== "string") {
throw new Error("missing name");
}
return new PredicateType(name, value);
}
// As a last resort, toType returns a type that matches any value that
// is === from. This is primarily useful for literal values like
// toType(null), but it has the additional advantage of allowing
// toType to be a total function.
return new IdentityType(value);
},
// Define a type whose name is registered in a namespace (the defCache) so
// that future definitions will return the same type given the same name.
// In particular, this system allows for circular and forward definitions.
// The Def object d returned from Type.def may be used to configure the
// type d.type by calling methods such as d.bases, d.build, and d.field.
def: function (typeName) {
return hasOwn.call(defCache, typeName)
? defCache[typeName]
: defCache[typeName] = new DefImpl(typeName);
},
hasDef: function (typeName) {
return hasOwn.call(defCache, typeName);
}
};
var builtInCtorFns = [];
var builtInCtorTypes = [];
function defBuiltInType(name, example) {
var objStr = objToStr.call(example);
var type = new PredicateType(name, function (value) { return objToStr.call(value) === objStr; });
if (example && typeof example.constructor === "function") {
builtInCtorFns.push(example.constructor);
builtInCtorTypes.push(type);
}
return type;
}
// These types check the underlying [[Class]] attribute of the given
// value, rather than using the problematic typeof operator. Note however
// that no subtyping is considered; so, for instance, isObject.check
// returns false for [], /./, new Date, and null.
var isString = defBuiltInType("string", "truthy");
var isFunction = defBuiltInType("function", function () { });
var isArray = defBuiltInType("array", []);
var isObject = defBuiltInType("object", {});
var isRegExp = defBuiltInType("RegExp", /./);
var isDate = defBuiltInType("Date", new Date());
var isNumber = defBuiltInType("number", 3);
var isBoolean = defBuiltInType("boolean", true);
var isNull = defBuiltInType("null", null);
var isUndefined = defBuiltInType("undefined", undefined);
var builtInTypes = {
string: isString,
function: isFunction,
array: isArray,
object: isObject,
RegExp: isRegExp,
Date: isDate,
number: isNumber,
boolean: isBoolean,
null: isNull,
undefined: isUndefined,
};
// In order to return the same Def instance every time Type.def is called
// with a particular name, those instances need to be stored in a cache.
var defCache = Object.create(null);
function defFromValue(value) {
if (value && typeof value === "object") {
var type = value.type;
if (typeof type === "string" &&
hasOwn.call(defCache, type)) {
var d = defCache[type];
if (d.finalized) {
return d;
}
}
}
return null;
}
var DefImpl = /** @class */ (function (_super) {
tslib_1.__extends(DefImpl, _super);
function DefImpl(typeName) {
var _this = _super.call(this, new PredicateType(typeName, function (value, deep) { return _this.check(value, deep); }), typeName) || this;
return _this;
}
DefImpl.prototype.check = function (value, deep) {
if (this.finalized !== true) {
throw new Error("prematurely checking unfinalized type " + this.typeName);
}
// A Def type can only match an object value.
if (value === null || typeof value !== "object") {
return false;
}
var vDef = defFromValue(value);
if (!vDef) {
// If we couldn't infer the Def associated with the given value,
// and we expected it to be a SourceLocation or a Position, it was
// probably just missing a "type" field (because Esprima does not
// assign a type property to such nodes). Be optimistic and let
// this.checkAllFields make the final decision.
if (this.typeName === "SourceLocation" ||
this.typeName === "Position") {
return this.checkAllFields(value, deep);
}
// Calling this.checkAllFields for any other type of node is both
// bad for performance and way too forgiving.
return false;
}
// If checking deeply and vDef === this, then we only need to call
// checkAllFields once. Calling checkAllFields is too strict when deep
// is false, because then we only care about this.isSupertypeOf(vDef).
if (deep && vDef === this) {
return this.checkAllFields(value, deep);
}
// In most cases we rely exclusively on isSupertypeOf to make O(1)
// subtyping determinations. This suffices in most situations outside
// of unit tests, since interface conformance is checked whenever new
// instances are created using builder functions.
if (!this.isSupertypeOf(vDef)) {
return false;
}
// The exception is when deep is true; then, we recursively check all
// fields.
if (!deep) {
return true;
}
// Use the more specific Def (vDef) to perform the deep check, but
// shallow-check fields defined by the less specific Def (this).
return vDef.checkAllFields(value, deep)
&& this.checkAllFields(value, false);
};
DefImpl.prototype.build = function () {
var _this = this;
var buildParams = [];
for (var _i = 0; _i < arguments.length; _i++) {
buildParams[_i] = arguments[_i];
}
// Calling Def.prototype.build multiple times has the effect of merely
// redefining this property.
this.buildParams = buildParams;
if (this.buildable) {
// If this Def is already buildable, update self.buildParams and
// continue using the old builder function.
return this;
}
// Every buildable type will have its "type" field filled in
// automatically. This includes types that are not subtypes of Node,
// like SourceLocation, but that seems harmless (TODO?).
this.field("type", String, function () { return _this.typeName; });
// Override Dp.buildable for this Def instance.
this.buildable = true;
var addParam = function (built, param, arg, isArgAvailable) {
if (hasOwn.call(built, param))
return;
var all = _this.allFields;
if (!hasOwn.call(all, param)) {
throw new Error("" + param);
}
var field = all[param];
var type = field.type;
var value;
if (isArgAvailable) {
value = arg;
}
else if (field.defaultFn) {
// Expose the partially-built object to the default
// function as its `this` object.
value = field.defaultFn.call(built);
}
else {
var message = "no value or default function given for field " +
JSON.stringify(param) + " of " + _this.typeName + "(" +
_this.buildParams.map(function (name) {
return all[name];
}).join(", ") + ")";
throw new Error(message);
}
if (!type.check(value)) {
throw new Error(shallowStringify(value) +
" does not match field " + field +
" of type " + _this.typeName);
}
built[param] = value;
};
// Calling the builder function will construct an instance of the Def,
// with positional arguments mapped to the fields original passed to .build.
// If not enough arguments are provided, the default value for the remaining fields
// will be used.
var builder = function () {
var args = [];
for (var _i = 0; _i < arguments.length; _i++) {
args[_i] = arguments[_i];
}
var argc = args.length;
if (!_this.finalized) {
throw new Error("attempting to instantiate unfinalized type " +
_this.typeName);
}
var built = Object.create(nodePrototype);
_this.buildParams.forEach(function (param, i) {
if (i < argc) {
addParam(built, param, args[i], true);
}
else {
addParam(built, param, null, false);
}
});
Object.keys(_this.allFields).forEach(function (param) {
// Use the default value.
addParam(built, param, null, false);
});
// Make sure that the "type" field was filled automatically.
if (built.type !== _this.typeName) {
throw new Error("");
}
return built;
};
// Calling .from on the builder function will construct an instance of the Def,
// using field values from the passed object. For fields missing from the passed object,
// their default value will be used.
builder.from = function (obj) {
if (!_this.finalized) {
throw new Error("attempting to instantiate unfinalized type " +
_this.typeName);
}
var built = Object.create(nodePrototype);
Object.keys(_this.allFields).forEach(function (param) {
if (hasOwn.call(obj, param)) {
addParam(built, param, obj[param], true);
}
else {
addParam(built, param, null, false);
}
});
// Make sure that the "type" field was filled automatically.
if (built.type !== _this.typeName) {
throw new Error("");
}
return built;
};
Object.defineProperty(builders, getBuilderName(this.typeName), {
enumerable: true,
value: builder
});
return this;
};
// The reason fields are specified using .field(...) instead of an object
// literal syntax is somewhat subtle: the object literal syntax would
// support only one key and one value, but with .field(...) we can pass
// any number of arguments to specify the field.
DefImpl.prototype.field = function (name, type, defaultFn, hidden) {
if (this.finalized) {
console.error("Ignoring attempt to redefine field " +
JSON.stringify(name) + " of finalized type " +
JSON.stringify(this.typeName));
return this;
}
this.ownFields[name] = new Field(name, Type.from(type), defaultFn, hidden);
return this; // For chaining.
};
DefImpl.prototype.finalize = function () {
var _this = this;
// It's not an error to finalize a type more than once, but only the
// first call to .finalize does anything.
if (!this.finalized) {
var allFields = this.allFields;
var allSupertypes = this.allSupertypes;
this.baseNames.forEach(function (name) {
var def = defCache[name];
if (def instanceof Def) {
def.finalize();
extend(allFields, def.allFields);
extend(allSupertypes, def.allSupertypes);
}
else {
var message = "unknown supertype name " +
JSON.stringify(name) +
" for subtype " +
JSON.stringify(_this.typeName);
throw new Error(message);
}
});
// TODO Warn if fields are overridden with incompatible types.
extend(allFields, this.ownFields);
allSupertypes[this.typeName] = this;
this.fieldNames.length = 0;
for (var fieldName in allFields) {
if (hasOwn.call(allFields, fieldName) &&
!allFields[fieldName].hidden) {
this.fieldNames.push(fieldName);
}
}
// Types are exported only once they have been finalized.
Object.defineProperty(namedTypes, this.typeName, {
enumerable: true,
value: this.type
});
this.finalized = true;
// A linearization of the inheritance hierarchy.
populateSupertypeList(this.typeName, this.supertypeList);
if (this.buildable &&
this.supertypeList.lastIndexOf("Expression") >= 0) {
wrapExpressionBuilderWithStatement(this.typeName);
}
}
};
return DefImpl;
}(Def));
// Note that the list returned by this function is a copy of the internal
// supertypeList, *without* the typeName itself as the first element.
function getSupertypeNames(typeName) {
if (!hasOwn.call(defCache, typeName)) {
throw new Error("");
}
var d = defCache[typeName];
if (d.finalized !== true) {
throw new Error("");
}
return d.supertypeList.slice(1);
}
// Returns an object mapping from every known type in the defCache to the
// most specific supertype whose name is an own property of the candidates
// object.
function computeSupertypeLookupTable(candidates) {
var table = {};
var typeNames = Object.keys(defCache);
var typeNameCount = typeNames.length;
for (var i = 0; i < typeNameCount; ++i) {
var typeName = typeNames[i];
var d = defCache[typeName];
if (d.finalized !== true) {
throw new Error("" + typeName);
}
for (var j = 0; j < d.supertypeList.length; ++j) {
var superTypeName = d.supertypeList[j];
if (hasOwn.call(candidates, superTypeName)) {
table[typeName] = superTypeName;
break;
}
}
}
return table;
}
var builders = Object.create(null);
// This object is used as prototype for any node created by a builder.
var nodePrototype = {};
// Call this function to define a new method to be shared by all AST
// nodes. The replaced method (if any) is returned for easy wrapping.
function defineMethod(name, func) {
var old = nodePrototype[name];
// Pass undefined as func to delete nodePrototype[name].
if (isUndefined.check(func)) {
delete nodePrototype[name];
}
else {
isFunction.assert(func);
Object.defineProperty(nodePrototype, name, {
enumerable: true,
configurable: true,
value: func
});
}
return old;
}
function getBuilderName(typeName) {
return typeName.replace(/^[A-Z]+/, function (upperCasePrefix) {
var len = upperCasePrefix.length;
switch (len) {
case 0: return "";
// If there's only one initial capital letter, just lower-case it.
case 1: return upperCasePrefix.toLowerCase();
default:
// If there's more than one initial capital letter, lower-case
// all but the last one, so that XMLDefaultDeclaration (for
// example) becomes xmlDefaultDeclaration.
return upperCasePrefix.slice(0, len - 1).toLowerCase() +
upperCasePrefix.charAt(len - 1);
}
});
}
function getStatementBuilderName(typeName) {
typeName = getBuilderName(typeName);
return typeName.replace(/(Expression)?$/, "Statement");
}
var namedTypes = {};
// Like Object.keys, but aware of what fields each AST type should have.
function getFieldNames(object) {
var d = defFromValue(object);
if (d) {
return d.fieldNames.slice(0);
}
if ("type" in object) {
throw new Error("did not recognize object of type " +
JSON.stringify(object.type));
}
return Object.keys(object);
}
// Get the value of an object property, taking object.type and default
// functions into account.
function getFieldValue(object, fieldName) {
var d = defFromValue(object);
if (d) {
var field = d.allFields[fieldName];
if (field) {
return field.getValue(object);
}
}
return object && object[fieldName];
}
// Iterate over all defined fields of an object, including those missing
// or undefined, passing each field name and effective value (as returned
// by getFieldValue) to the callback. If the object has no corresponding
// Def, the callback will never be called.
function eachField(object, callback, context) {
getFieldNames(object).forEach(function (name) {
callback.call(this, name, getFieldValue(object, name));
}, context);
}
// Similar to eachField, except that iteration stops as soon as the
// callback returns a truthy value. Like Array.prototype.some, the final
// result is either true or false to indicates whether the callback
// returned true for any element or not.
function someField(object, callback, context) {
return getFieldNames(object).some(function (name) {
return callback.call(this, name, getFieldValue(object, name));
}, context);
}
// Adds an additional builder for Expression subtypes
// that wraps the built Expression in an ExpressionStatements.
function wrapExpressionBuilderWithStatement(typeName) {
var wrapperName = getStatementBuilderName(typeName);
// skip if the builder already exists
if (builders[wrapperName])
return;
// the builder function to wrap with builders.ExpressionStatement
var wrapped = builders[getBuilderName(typeName)];
// skip if there is nothing to wrap
if (!wrapped)
return;
var builder = function () {
var args = [];
for (var _i = 0; _i < arguments.length; _i++) {
args[_i] = arguments[_i];
}
return builders.expressionStatement(wrapped.apply(builders, args));
};
builder.from = function () {
var args = [];
for (var _i = 0; _i < arguments.length; _i++) {
args[_i] = arguments[_i];
}
return builders.expressionStatement(wrapped.from.apply(builders, args));
};
builders[wrapperName] = builder;
}
function populateSupertypeList(typeName, list) {
list.length = 0;
list.push(typeName);
var lastSeen = Object.create(null);
for (var pos = 0; pos < list.length; ++pos) {
typeName = list[pos];
var d = defCache[typeName];
if (d.finalized !== true) {
throw new Error("");
}
// If we saw typeName earlier in the breadth-first traversal,
// delete the last-seen occurrence.
if (hasOwn.call(lastSeen, typeName)) {
delete list[lastSeen[typeName]];
}
// Record the new index of the last-seen occurrence of typeName.
lastSeen[typeName] = pos;
// Enqueue the base names of this type.
list.push.apply(list, d.baseNames);
}
// Compaction loop to remove array holes.
for (var to = 0, from = to, len = list.length; from < len; ++from) {
if (hasOwn.call(list, from)) {
list[to++] = list[from];
}
}
list.length = to;
}
function extend(into, from) {
Object.keys(from).forEach(function (name) {
into[name] = from[name];
});
return into;
}
function finalize() {
Object.keys(defCache).forEach(function (name) {
defCache[name].finalize();
});
}
return {
Type: Type,
builtInTypes: builtInTypes,
getSupertypeNames: getSupertypeNames,
computeSupertypeLookupTable: computeSupertypeLookupTable,
builders: builders,
defineMethod: defineMethod,
getBuilderName: getBuilderName,
getStatementBuilderName: getStatementBuilderName,
namedTypes: namedTypes,
getFieldNames: getFieldNames,
getFieldValue: getFieldValue,
eachField: eachField,
someField: someField,
finalize: finalize,
};
}
exports.default = typesPlugin;
;

28
node_modules/ast-types/main.d.ts generated vendored Normal file
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@@ -0,0 +1,28 @@
import { ASTNode, Type, AnyType, Field } from "./lib/types";
import { NodePath } from "./lib/node-path";
import { namedTypes } from "./gen/namedTypes";
import { builders } from "./gen/builders";
import { Visitor } from "./gen/visitor";
declare const astNodesAreEquivalent: {
(a: any, b: any, problemPath?: any): boolean;
assert(a: any, b: any): void;
}, builders: builders, builtInTypes: {
string: Type<string>;
function: Type<Function>;
array: Type<any[]>;
object: Type<{
[key: string]: any;
}>;
RegExp: Type<RegExp>;
Date: Type<Date>;
number: Type<number>;
boolean: Type<boolean>;
null: Type<null>;
undefined: Type<undefined>;
}, defineMethod: (name: any, func?: Function | undefined) => Function, eachField: (object: any, callback: (name: any, value: any) => any, context?: any) => void, finalize: () => void, getBuilderName: (typeName: any) => any, getFieldNames: (object: any) => string[], getFieldValue: (object: any, fieldName: any) => any, getSupertypeNames: (typeName: string) => string[], NodePath: import("./lib/node-path").NodePathConstructor, Path: import("./lib/path").PathConstructor, PathVisitor: import("./lib/path-visitor").PathVisitorConstructor, someField: (object: any, callback: (name: any, value: any) => any, context?: any) => boolean, Type: {
or(...types: any[]): Type<any>;
from<T>(value: any, name?: string | undefined): Type<T>;
def(typeName: string): import("./lib/types").Def<any>;
hasDef(typeName: string): boolean;
}, use: <T>(plugin: import("./types").Plugin<T>) => T, visit: <M = {}>(node: ASTNode, methods?: Visitor<M> | undefined) => any;
export { AnyType, ASTNode, astNodesAreEquivalent, builders, builtInTypes, defineMethod, eachField, Field, finalize, getBuilderName, getFieldNames, getFieldValue, getSupertypeNames, namedTypes, NodePath, Path, PathVisitor, someField, Type, use, visit, Visitor, };

53
node_modules/ast-types/main.js generated vendored Normal file
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@@ -0,0 +1,53 @@
"use strict";
Object.defineProperty(exports, "__esModule", { value: true });
exports.visit = exports.use = exports.Type = exports.someField = exports.PathVisitor = exports.Path = exports.NodePath = exports.namedTypes = exports.getSupertypeNames = exports.getFieldValue = exports.getFieldNames = exports.getBuilderName = exports.finalize = exports.eachField = exports.defineMethod = exports.builtInTypes = exports.builders = exports.astNodesAreEquivalent = void 0;
var tslib_1 = require("tslib");
var fork_1 = tslib_1.__importDefault(require("./fork"));
var core_1 = tslib_1.__importDefault(require("./def/core"));
var es6_1 = tslib_1.__importDefault(require("./def/es6"));
var es7_1 = tslib_1.__importDefault(require("./def/es7"));
var es2020_1 = tslib_1.__importDefault(require("./def/es2020"));
var jsx_1 = tslib_1.__importDefault(require("./def/jsx"));
var flow_1 = tslib_1.__importDefault(require("./def/flow"));
var esprima_1 = tslib_1.__importDefault(require("./def/esprima"));
var babel_1 = tslib_1.__importDefault(require("./def/babel"));
var typescript_1 = tslib_1.__importDefault(require("./def/typescript"));
var es_proposals_1 = tslib_1.__importDefault(require("./def/es-proposals"));
var namedTypes_1 = require("./gen/namedTypes");
Object.defineProperty(exports, "namedTypes", { enumerable: true, get: function () { return namedTypes_1.namedTypes; } });
var _a = fork_1.default([
// This core module of AST types captures ES5 as it is parsed today by
// git://github.com/ariya/esprima.git#master.
core_1.default,
// Feel free to add to or remove from this list of extension modules to
// configure the precise type hierarchy that you need.
es6_1.default,
es7_1.default,
es2020_1.default,
jsx_1.default,
flow_1.default,
esprima_1.default,
babel_1.default,
typescript_1.default,
es_proposals_1.default,
]), astNodesAreEquivalent = _a.astNodesAreEquivalent, builders = _a.builders, builtInTypes = _a.builtInTypes, defineMethod = _a.defineMethod, eachField = _a.eachField, finalize = _a.finalize, getBuilderName = _a.getBuilderName, getFieldNames = _a.getFieldNames, getFieldValue = _a.getFieldValue, getSupertypeNames = _a.getSupertypeNames, n = _a.namedTypes, NodePath = _a.NodePath, Path = _a.Path, PathVisitor = _a.PathVisitor, someField = _a.someField, Type = _a.Type, use = _a.use, visit = _a.visit;
exports.astNodesAreEquivalent = astNodesAreEquivalent;
exports.builders = builders;
exports.builtInTypes = builtInTypes;
exports.defineMethod = defineMethod;
exports.eachField = eachField;
exports.finalize = finalize;
exports.getBuilderName = getBuilderName;
exports.getFieldNames = getFieldNames;
exports.getFieldValue = getFieldValue;
exports.getSupertypeNames = getSupertypeNames;
exports.NodePath = NodePath;
exports.Path = Path;
exports.PathVisitor = PathVisitor;
exports.someField = someField;
exports.Type = Type;
exports.use = use;
exports.visit = visit;
// Populate the exported fields of the namedTypes namespace, while still
// retaining its member types.
Object.assign(namedTypes_1.namedTypes, n);

65
node_modules/ast-types/package.json generated vendored Normal file
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{
"author": "Ben Newman <bn@cs.stanford.edu>",
"name": "ast-types",
"version": "0.13.4",
"description": "Esprima-compatible implementation of the Mozilla JS Parser API",
"keywords": [
"ast",
"abstract syntax tree",
"hierarchy",
"mozilla",
"spidermonkey",
"parser api",
"esprima",
"types",
"type system",
"type checking",
"dynamic types",
"parsing",
"transformation",
"syntax"
],
"homepage": "http://github.com/benjamn/ast-types",
"repository": {
"type": "git",
"url": "git://github.com/benjamn/ast-types.git"
},
"license": "MIT",
"main": "main.js",
"types": "main.d.ts",
"scripts": {
"gen": "ts-node --transpile-only script/gen-types.ts",
"mocha": "test/run.sh",
"test": "npm run gen && npm run build && npm run mocha",
"clean": "ts-emit-clean",
"build": "tsc && ts-add-module-exports",
"prepack": "npm run clean && npm run gen && npm run build",
"postpack": "npm run clean"
},
"dependencies": {
"tslib": "^2.0.1"
},
"devDependencies": {
"@babel/parser": "7.7.7",
"@babel/types": "7.4.4",
"@types/esprima": "4.0.2",
"@types/glob": "7.1.1",
"@types/mocha": "5.2.6",
"@types/node": "12.0.0",
"espree": "7.3.0",
"esprima": "4.0.1",
"esprima-fb": "15001.1001.0-dev-harmony-fb",
"flow-parser": "0.132.0",
"glob": "7.1.6",
"mocha": "6.1.4",
"recast": "0.20.0",
"reify": "0.20.12",
"ts-add-module-exports": "1.0.0",
"ts-emit-clean": "1.0.0",
"ts-node": "7.0.1",
"typescript": "3.9.7"
},
"engines": {
"node": ">=4"
}
}

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{
"compilerOptions": {
"target": "es5",
"module": "commonjs",
"declaration": true,
"rootDir": ".",
"strict": true,
"noUnusedLocals": true,
"noUnusedParameters": true,
"noImplicitReturns": true,
"moduleResolution": "node",
"esModuleInterop": true,
"importHelpers": true,
"stripInternal": true,
"lib": ["es2015"]
},
"exclude": [
"node_modules",
"test/data"
]
}

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node_modules/ast-types/types.d.ts generated vendored Normal file
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export declare type Fork = {
use<T>(plugin: Plugin<T>): T;
};
export declare type Plugin<T> = (fork: Fork) => T;
export declare type Def = Plugin<void>;
export declare type Omit<T, K> = Pick<T, Exclude<keyof T, K>>;

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node_modules/ast-types/types.js generated vendored Normal file
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"use strict";
Object.defineProperty(exports, "__esModule", { value: true });