Parsing error the type cast expression is expected to be wrapped with parenthesis

Javascript — Error: The type cast expression is expected to be wrapped with parenthesis when using get function

im new to javascript and im trying to make a get request to a youtube API. I have preconfigured a few things related to the request before making it using axios. However, i think my question is more related to the use of the get function.

My predefined configuration for the request is stored under the ‘youtube’ object. Here is the code uesd to create it

My question is related to when i use the get function using these settings.

The code below gave me the following error: «Parsing error: The type cast expression is expected to be wrapped with parenthesis»

But when i add parenthesis around params it works fine:

Can someone explain why including the parenthesis solves this error, as well as what the error actually means in the first place?

Answers

There are 3 suggested solutions here and each one has been listed below with a detailed description. The following topics have been covered briefly such as Javascript, Parameters, Axios, Get, Parentheses. These have been categorized in sections for a clear and precise explanation.

Without the curly braces (they aren’t parentheses), your code would be invalid JavaScript because you have a property initializer ( params: ) outside an object literal, where the parser is expecting an argument for get . I’m guessing from the error message you’re using TypeScript, which is trying to interpret the part after params: as a type expression.

Adding the <> fixes it because you need to wrap that property initializer in an object literal, so you’re passing an object as the second argument to get .

Источник

Unknown parsing error: The type cast expression is expected to be wrapped with parenthesis about eslint-plugin-vue HOT 3 CLOSED

I think you need to specify the «@typescript-eslint/parser» in parserOptions.parser or remove the babel-eslint specification from parserOptions.parser and respect @vue/typescript/recommended .

arishojaei commented on January 15, 2023 1

I think you need to specify the «@typescript-eslint/parser» in parserOptions.parser or remove the babel-eslint specification from parserOptions.parser and respect @vue/typescript/recommended .

Thanks, It’s ok now.

ota-meshi commented on January 15, 2023

If that doesn’t work, share a repository that can reproduce the problem.

• Add vue-typed-mixins support HOT 1
• Similar to max-attributes-per-line force one line for less than specific number of attributes HOT 3
• [`vue/component-name-in-template-casing`] False positive for dynamic component in template
• v-on-handler-style: False positive for [«method», «inline»] HOT 6
• vue/no-lifecycle-after-await: dosen’t work with unplugin-auto-import HOT 1
• `vue/require-default-prop` is not compatible with the Composition API and `@typescript-eslint/no-unnecessary-condition` HOT 1
• no-undef-components failed when referencing itself in `

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Источник

Parsing error line 1 the type cast expression is expected to be wrapped with parenthesis

Reading time В· 2 min

Declaration or statement expected error in TypeScript #

The «Declaration or statement expected» error occurs when we have a syntax error in our code, e.g. when destructuring, exporting, or have a missing or inconsistent bracket. To solve the error, make sure to correct any syntax errors in your code.

Here are 3 examples of how the error occurs.

The first example shows how the error occurs when destructuring. To be able to destructure and reassign an already-declared variable, wrap the statement in parentheses.

You might also get the error when exporting something that you previously declared. When you declare something and export it on another line, wrap the export in curly braces.

We are basically exporting an object that contains one or more named exports.

You don’t have to use curly braces if you export and declare the variable in a single statement.

Another common cause of the error is having a missing bracket somewhere in your code.

Carefully check your code for a missing curly brace, parenthesis, square bracket, etc.

If you use IntelliJ as your IDE and are getting the «Declaration or statement expected» error, try closing and re-opening the file or restarting your IDE as it sometimes glitches.

Make sure you aren’t using any reserved words when declaring variables.

Words like case , class , Error , etc are reserved, so we’re not allowed to use them as variable names.

Источник

Type Casting Expressions

Sometimes it is useful to assert a type without using something like a function or a variable to do so. For this Flow supports an inline type cast expression syntax which can be used in a number of different ways.

Type Cast Expression Syntax​

In order to create a type cast expression around a value , add a colon : with the Type and wrap the expression with parentheses ( ) .

Note: The parentheses are necessary to avoid ambiguity with other syntax.

Type cast expressions can appear anywhere an expression can appear.

The value itself can also be an expression:

When you strip the types all that is left is the value.

Type Assertions​

Using type cast expressions you can assert that values are certain types.

Asserting types in this way works the same as types do anywhere else.

Type Casting​

When you write a type cast expression, the result of that expression is the value with the provided type. If you hold onto the resulting value, it will have the new type.

Using type cast expressions​

Note: We’re going to go through a stripped down example for demonstrating how to make use of type cast expressions. This example is not solved well in practice.

Type Casting through any​

Because type casts work the same as all other type annotations, you can only cast values to less specific types. You cannot change the type or make it something more specific.

But you can use any to cast to whatever type you want.

By casting the value to any, you can then cast to whatever you want.

This is unsafe and not recommended. But it’s sometimes useful when you are doing something with a value which is very difficult or impossible to type and want to make sure that the result has the desired type.

For example, the following function for cloning an object.

It would be hard to create a type for this because we’re creating a new object based on another object.

If we cast through any, we can return a type which is more useful.

Type checking through type assertions​

If we want to validate what kinds of types are coming into our cloneObject method from before, we could write the following annotation:

But now we have a problem. Our typeof obj annotation also gets this new annotation which defeats the entire purpose.

Instead we can assert the type within the function using a type assertion and now we’re validating our inputs.

Now type inference can keep working for typeof obj which returns the expected shape of the object.

Note: This is not the proper solution to the above problem, it was being used for demonstration only. The correct solution is annotating the function like this:

Источник

Troubleshooting F#

As the saying goes, “if it compiles, it’s correct”, but it can be extremely frustrating just trying to get the code to compile at all! So this page is devoted to helping you troubleshoot your F# code.

I will first present some general advice on troubleshooting and some of the most common errors that beginners make. After that, I will describe each of the common error messages in detail, and give examples of how they can occur and how to correct them.

General guidelines for troubleshooting

By far the most important thing you can do is to take the time and effort to understand exactly how F# works, especially the core concepts involving functions and the type system. So please read and reread the series “thinking functionally” and “understanding F# types”, play with the examples, and get comfortable with the ideas before you try to start doing serious coding. If you don’t understand how functions and types work, then the compiler errors will not make any sense.

If you are coming from an imperative language such as C#, you may have developed some bad habits by relying on the debugger to find and fix incorrect code. In F#, you will probably not get that far, because the compiler is so much stricter in many ways. And of course, there is no tool to “debug” the compiler and step through its processing. The best tool for debugging compiler errors is your brain, and F# forces you to use it!

Nevertheless, there are a number of extremely common errors that beginners make, and I will quickly go through them.

Don’t use parentheses when calling a function

In F#, whitespace is the standard separator for function parameters. You will rarely need to use parentheses, and in particular, do not use parentheses when calling a function.

Don’t mix up tuples with multiple parameters

If it has a comma, it is a tuple. And a tuple is one object not two. So you will get errors about passing the wrong type of parameter, or too few parameters.

The compiler treats (1,2) as a generic tuple, which it attempts to pass to “ addTwoParams ”. Then it complains that the first parameter of addTwoParams is an int, and we’re trying to pass a tuple.

If you attempt to pass two arguments to a function expecting one tuple, you will get another obscure error.

Watch out for too few or too many arguments

The F# compiler will not complain if you pass too few arguments to a function (in fact “partial application” is an important feature), but if you don’t understand what is going on, you will often get strange “type mismatch” errors later.

Similarly the error for having too many arguments is typically “This value is not a function” rather than a more straightforward error.

The “printf” family of functions is very strict in this respect. The argument count must be exact.

This is a very important topic – it is critical that you understand how partial application works. See the series “thinking functionally” for a more detailed discussion.

Use semicolons for list separators

In the few places where F# needs an explicit separator character, such as lists and records, the semicolon is used. Commas are never used. (Like a broken record, I will remind you that commas are for tuples).

Don’t use ! for not or != for not-equal

The exclamation point symbol is not the “NOT” operator. It is the deferencing operator for mutable references. If you use it by mistake, you will get the following error:

The correct construction is to use the “not” keyword. Think SQL or VB syntax rather than C syntax.

And for “not equal”, use “<>”, again like SQL or VB.

Don’t use = for assignment

If you are using mutable values, the assignment operation is written “ ”. If you use the equals symbol you might not even get an error, just an unexpected result.

Watch out for hidden tab characters

The indenting rules are very straightforward, and it is easy to get the hang of them. But you are not allowed to use tabs, only spaces.

Be sure to set your editor to convert tabs to spaces. And watch out if you are pasting code in from elsewhere. If you do run into persistent problems with a bit of code, try removing the whitespace and re-adding it.

Don’t mistake simple values for function values

If you are trying to create a function pointer or delegate, watch out that you don’t accidentally create a simple value that has already been evaluated.

If you want a parameterless function that you can reuse, you will need to explicitly pass a unit parameter, or define it as a lambda.

See the series “thinking functionally” for more discussion of parameterless functions.

Tips for troubleshooting “not enough information” errors

The F# compiler is currently a one-pass left-to-right compiler, and so type information later in the program is unavailable to the compiler if it hasn’t been parsed yet.

A number of errors can be caused by this, such as “FS0072: Lookup on object of indeterminate type” and “FS0041: A unique overload for could not be determined”. The suggested fixes for each of these specific cases are described below, but there are some general principles that can help if the compiler is complaining about missing types or not enough information. These guidelines are:

• Define things before they are used (this includes making sure the files are compiled in the right order)
• Put the things that have “known types” earlier than things that have “unknown types”. In particular, you might be able reorder pipes and similar chained functions so that the typed objects come first.
• Annotate as needed. One common trick is to add annotations until everything works, and then take them away one by one until you have the minimum needed.

Do try to avoid annotating if possible. Not only is it not aesthetically pleasing, but it makes the code more brittle. It is a lot easier to change types if there are no explicit dependencies on them.

F# compiler errors

Here is a list of the major errors that seem to me worth documenting. I have not documented any errors that are self explanatory, only those that seem obscure to beginners.

I will continue to add to the list in the future, and I welcome any suggestions for additions.

FS0001: The type ‘X’ does not match the type ‘Y’

This is probably the most common error you will run into. It can manifest itself in a wide variety of contexts, so I have grouped the most common problems together with examples and fixes. Do pay attention to the error message, as it is normally quite explicit about what the problem is.

Error message	Possible causes
The type ‘float’ does not match the type ‘int’	A. Can’t mix floats and ints
The type ‘int’ does not support any operators named ‘DivideByInt’	A. Can’t mix floats and ints.
The type ‘X’ is not compatible with any of the types	B. Using the wrong numeric type.
This type (function type) does not match the type (simple type). Note: function types have a arrow in them, like ‘a -> ‘b .	C. Passing too many arguments to a function.
This expression was expected to have (function type) but here has (simple type)	C. Passing too many arguments to a function.
This expression was expected to have (N part function) but here has (N-1 part function)	C. Passing too many arguments to a function.
This expression was expected to have (simple type) but here has (function type)	D. Passing too few arguments to a function.
This expression was expected to have (type) but here has (other type)	E. Straightforward type mismatch. F. Inconsistent returns in branches or matches. G. Watch out for type inference effects buried in a function.
Type mismatch. Expecting a (simple type) but given a (tuple type). Note: tuple types have a star in them, like ‘a * ‘b .	H. Have you used a comma instead of space or semicolon?
Type mismatch. Expecting a (tuple type) but given a (different tuple type).	I. Tuples must be the same type to be compared.
This expression was expected to have type ‘a ref but here has type X	J. Don’t use ! as the «not» operator.
The type (type) does not match the type (other type)	K. Operator precedence (especially functions and pipes).
This expression was expected to have type (monadic type) but here has type ‘b * ‘c	L. let! error in computation expressions.

A. Can’t mix ints and floats

Unlike C# and most imperative languages, ints and floats cannot be mixed in expressions. You will get a type error if you attempt this:

The fix is to cast the int into a float first:

This issue can also manifest itself in library functions and other places. For example, you cannot do “ average ” on a list of ints.

You must cast each int to a float first, as shown below:

B. Using the wrong numeric type

You will get a “not compatible” error when a numeric cast failed.

One possible fix is to cast it if appropriate.

C. Passing too many arguments to a function

The clue is in the error.

The fix is to remove one of the arguments!

Similar errors are caused by passing too many arguments to printf .

D. Passing too few arguments to a function

If you do not pass enough arguments to a function, you will get a partial application. When you later use it, you get an error because it is not a simple type.

This is particularly common for some .NET library functions that expect a unit parameter, such as ReadLine above.

The fix is to pass the correct number of parameters. Check the type of the result value to make sure that it is indeed a simple type. In the ReadLine case, the fix is to pass a () argument.

E. Straightforward type mismatch

The simplest case is that you have the wrong type, or you are using the wrong type in a print format string.

F. Inconsistent return types in branches or matches

A common mistake is that if you have a branch or match expression, then every branch MUST return the same type. If not, you will get a type error.

Obviously, the straightforward fix is to make each branch return the same type.

Remember that if an “else” branch is missing, it is assumed to return unit, so the “true” branch must also return unit.

If both branches cannot return the same type, you may need to create a new union type that can contain both types.

G. Watch out for type inference effects buried in a function

A function may cause an unexpected type inference that ripples around your code. For example, in the following, the innocent print format string accidentally causes doSomething to expect a string.

The fix is to check the function signatures and drill down until you find the guilty party. Also, use the most generic types possible, and avoid type annotations if possible.

H. Have you used a comma instead of space or semicolon?

If you are new to F#, you might accidentally use a comma instead of spaces to separate function arguments:

The fix is: don’t use a comma!

One area where commas are used is when calling .NET library functions. These all take tuples as arguments, so the comma form is correct. In fact, these calls look just the same as they would from C#:

I. Tuples must be the same type to be compared or pattern matched

Tuples with different types cannot be compared. Trying to compare a tuple of type int * int , with a tuple of type int * string results in an error:

And the length must be the same:

You can get the same issue when pattern matching tuples during binding:

J. Don’t use ! as the “not” operator

If you use ! as a “not” operator, you will get a type error mentioning the word “ref”.

The fix is to use the “not” keyword instead.

K. Operator precedence (especially functions and pipes)

If you mix up operator precedence, you may get type errors. Generally, function application is highest precedence compared to other operators, so you get an error in the case below:

The fix is to use parentheses.

Conversely, the pipe operator is low precedence compared to other operators.

Again, the fix is to use parentheses.

L. let! error in computation expressions (monads)

Here is a simple computation expression:

However, if you try to use it, you get an error.

The reason is that “ Bind ” expects a tuple (wrapper,func) , not two parameters. (Check the signature for bind in the F# documentation).

The fix is to change the bind function to accept a tuple as its (single) parameter.

FS0003: This value is not a function and cannot be applied

This error typically occurs when passing too many arguments to a function.

It can also occur when you do operator overloading, but the operators cannot be used as prefix or infix.

FS0008: This runtime coercion or type test involves an indeterminate type

You will often see this when attempting to use “ 😕 ” operator to match on a type.

The message tells you the problem: “runtime type tests are not allowed on some types”.

The answer is to “box” the value which forces it into a reference type, and then you can type check it:

FS0010: Unexpected identifier in binding

Typically caused by breaking the “offside” rule for aligning expressions in a block.

The fix is to align the code correctly!

See also FS0588: Block following this ‘let’ is unfinished for another issue caused by alignment.

FS0010: Incomplete structured construct

Often occurs if you are missing parentheses from a class constructor:

Can also occur if you forgot to put parentheses around an operator:

Can also occur if you are missing one side of an infix operator:

Can also occur if you attempt to send a namespace definition to F# interactive. The interactive console does not allow namespaces.

FS0013: The static coercion from type X to Y involves an indeterminate type

This is generally caused by implic

FS0020: This expression should have type ‘unit’

This error is commonly found in two situations:

• Expressions that are not the last expression in the block
• Using wrong assignment operator

FS0020 with expressions that are not the last expression in the block

Only the last expression in a block can return a value. All others must return unit. So this typically occurs when you have a function in a place that is not the last function.

The easy fix is use ignore . But ask yourself why you are using a function and then throwing away the answer – it might be a bug.

This also occurs if you think you writing C# and you accidentally use semicolons to separate expressions:

FS0020 with assignment

Another variant of this error occurs when assigning to a property.

With this error, chances are you have confused the assignment operator “ ” for mutable values, with the equality comparison operator “ = ”.

The fix is to use the proper assignment operator.

FS0030: Value restriction

This is related to F#’s automatic generalization to generic types whenever possible.

For example, given :

F#’s type inference will cleverly figure out the generic types.

However in some cases, the F# compiler feels that the code is ambiguous, and, even though it looks like it is guessing the type correctly, it needs you to be more specific:

Almost always this will be caused by trying to define a partially applied function, and almost always, the easiest fix is to explicitly add the missing parameter:

For more details see the MSDN article on “automatic generalization”.

FS0035: This construct is deprecated

F# syntax has been cleaned up over the last few years, so if you are using examples from an older F# book or webpage, you may run into this. See the MSDN documentation for the correct syntax.

FS0039: The field, constructor or member X is not defined

This error is commonly found in four situations:

• The obvious case where something really isn’t defined! And make sure that you don’t have a typo or case mismatch either.
• Interfaces
• Recursion
• Extension methods

FS0039 with interfaces

In F# all interfaces are “explicit” implementations rather than “implicit”. (Read the C# documentation on “explicit interface implementation” for an explanation of the difference).

The key point is that when a interface member is explicitly implemented, it cannot be accessed through a normal class instance, but only through an instance of the interface, so you have to cast to the interface type by using the :> operator.

Here’s an example of a class that implements an interface:

This doesn’t work:

The fix is to cast the object to the interface, as below:

FS0039 with recursion

Here’s a standard Fibonacci implementation:

Unfortunately, this will not compile:

The reason is that when the compiler sees ‘fib’ in the body, it doesn’t know about the function because it hasn’t finished compiling it yet!

The fix is to use the “ rec ” keyword.

Note that this only applies to “ let ” functions. Member functions do not need this, because the scope rules are slightly different.

FS0039 with extension methods

If you have defined an extension method, you won’t be able to use it unless the module is in scope.

Here’s a simple extension to demonstrate:

If you try to use it the extension, you get the FS0039 error:

The fix is just to open the IntExtensions module.

FS0041: A unique overload for could not be determined

This can be caused when calling a .NET library function that has multiple overloads:

There a number of ways to fix this. One way is to use an explicit type annotation:

You can sometimes use a named parameter to avoid the type annotation:

Or you can try to create intermediate objects that help the type inference, again without needing type annotations:

FS0049: Uppercase variable identifiers should not generally be used in patterns

When pattern matching, be aware of a subtle difference between the pure F# union types which consist of a tag only, and a .NET Enum type.

Pure F# union type:

But with .NET enums you must fully qualify them:

The fixed version:

FS0072: Lookup on object of indeterminate type

This occurs when “dotting into” an object whose type is unknown.

Consider the following example:

The compiler does not know what type “x” is, and therefore does not know if “ Length ” is a valid method.

There a number of ways to fix this. The crudest way is to provide an explicit type annotation:

In some cases though, judicious rearrangement of the code can help. For example, the example below looks like it should work. It’s obvious to a human that the List.map function is being applied to a list of strings, so why does x.Length cause an error?

The reason is that the F# compiler is currently a one-pass compiler, and so type information present later in the program cannot be used if it hasn’t been parsed yet.

Yes, you can always explicitly annotate:

But another, more elegant way that will often fix the problem is to rearrange things so the known types come first, and the compiler can digest them before it moves to the next clause.

It’s good practice to avoid explicit type annotations, so this approach is best, if it is feasible.

FS0588: Block following this ‘let’ is unfinished

Caused by outdenting an expression in a block, and thus breaking the “offside rule”.

The fix is to align the code correctly.

See also FS0010: Unexpected identifier in binding for another issue caused by alignment.

Источник

выдает ошибку
Module build failed (from ./node_modules/babel-loader/lib/index.js):
SyntaxError: C:reactfundamentalsrcApp.js: The type cast expression is expected to be wrapped with parenthesis. (30:75)

28 |     <div className="App">
  29 |         <form>
> 30 |             <MyInput value={post.title} onChange={e=>setPost(...post, title: e.target.value)} type='text' placeholder='название поста'/>
     |                                                                            ^
  31 |             <MyInput value={post.body} onChange={e=>setPost(...post, body: e.target.value)} type='text' placeholder='название поста'/>
  32 |             <MyButton type="submit" onClick={addNewPost}>Создать пост</MyButton>
  33 |         </form>

Line 29:75: Parsing error: The type cast expression is expected to be wrapped with parenthesis. (29:75)

import React,{useState} from 'react';
import './styles/App.css';
import PostList from "./components/PostList";
import MyButton from "./components/button/MyButton";
import MyInput from "./components/input/MyInput";

function App() {
    const[posts,setPosts]=useState([
        {id:1,title:'javascript 1',body: "JavaScript-язык программирования"},
        {id:2,title:'javascript 2',body: "JavaScript-язык программирования"},
        {id:3,title:'javascript 3',body: "JavaScript-язык программирования"}
    ])
    const  [post,setPost]=useState({title:'',body:''});
    //const bodyInputRef=useRef();
    const  addNewPost=(e)=>{
        e.preventDefault();
        const newPost={
            id: Date.now(),
            title,body
        }
        setPosts([...posts, {...post,id: Date.now()}]);
        setPost();
        console.log(newPost);
        //console.log(title);//управляемый
        //console.log(boduInputRef.current.value);//неуправляемый
    }
  return (
    <div className="App">
        <form>
            <MyInput value={post.title} onChange={e=>setPost(...post, title: e.target.value)} type='text' placeholder='название поста'/>
            <MyInput value={post.body} onChange={e=>setPost(...post, body: e.target.value)} type='text' placeholder='название поста'/>
            <MyButton type="submit" onClick={addNewPost}>Создать пост</MyButton>
        </form>
        <PostList posts={posts} title="Список постов 2"/>
    </div>
  );
}

export default App;

Table of contents

Previous PostNext Post

import axios from 'axios';


const KEY = 'AIzaSyDVd1jDhcZdtJb--1_ncBqpL0Gxgfs9ys8';

export default axios.create({

    baseURL: 'https://www.googleapis.com/youtube/v3',
    params: {
        part: 'snippet',
        maxResults: 5,
        key: KEY

    }
});

onTermSubmit = (term) => {

        youtube.get('/search', 
            params: {
                q:term
            }
        );
    };

onTermSubmit = (term) => {

        youtube.get('/search', {
            params: {
                q:term
            }
        });
    };

this.setState( state: {query: query});

this.setState( {state: {query: query}});

const [fields, setFields] = useState({
  city: ""
})
<input type="text" name="city" value={fields.city} onChange={e => handleChange(e) />

function handleChange(e) {
  setFields(...fields, [e.target.name]: e.target.value)
}

function handleChange(e) {
  setFields({...fields, [e.target.name]: e.target.value})
}

function handleChange(e) {
  setFields(currentFields => ({...currentFields, [e.target.name]: e.target.value}))
}

export default class Cart extends React.Component {
    render() {
      var collection = {
        "2548": {
          "album": "Slippery When Wet",
          "artist": "Bon Jovi",
          "tracks": [
            "Let It Rock", **
            "You Give Love a Bad Name": {
              "love": "bad",
              "you": "George"
            } **
          ]
        }
      };
      return ();
    }
}

var collection = {
        "2548": {
          "album": "Slippery When Wet",
          "artist": "Bon Jovi",
          "tracks": [
            "Let It Rock",
            {
              "You Give Love a Bad Name": {
                "love": "bad",
                "you": "George"
              }
            }
          ]
        }
      };

// *.ts

import Vue from 'vue';

export default Vue.extend({ 
  ...

  methods: {
    selectTab(tabIndex:number) {
    }
  }
});

module.exports = {
  root: true,
  env: {
    node: true,
  },
  extends: [
    'plugin:vue/base',
    'plugin:vue/essential',
    'plugin:vue/strongly-recommended',
    'plugin:vue/recommended',
    '@vue/airbnb',
    '@vue/typescript/recommended',
  ],
  parserOptions: {
    parser: 'babel-eslint',
    ecmaVersion: 2020,
  },
  rules: {
    indent: ['error', 2],
    'no-multiple-empty-lines': ['error', { max: 1 }],
    'import/no-extraneous-dependencies': 0,
    'max-len': ['error', { code: 180 }],
    'vue/no-v-html': 0,
    'linebreak-style': 0,
  },
  overrides: [
    {
      files: [
        '**/__tests__/*.{j,t}s?(x)',
        '**/tests/unit/**/*.spec.{j,t}s?(x)',
        '**/src/**/*.test.{j,t}s?(x)',
      ],
      env: {
        jest: true,
      },
    },
  ],
};

// *.ts
methods: {
  selectTab(tabIndex:number) {
    console.log(tabIndex);
  }
}

  29:21  error  Parsing error: The type cast expression is expected to be wrapped with parenthesis.

  27 |
  28 | methods: {
> 29 |   selectTab(tabIndex:number) {
     |                     ^
  30 |     console.log(tabIndex);
  31 |   }
  32 | }

  parserOptions: {
-    parser: 'babel-eslint',
    ecmaVersion: 2020,
  },

  parserOptions: {
-    parser: 'babel-eslint',
    ecmaVersion: 2020,
  },

// *.ts

import Vue from 'vue';

export default Vue.extend({ 
  ...

  methods: {
    selectTab(tabIndex:number) {
    }
  }
});

  70 |     '@nuxtjs/sentry',
  71 |     'vue-geolocation-api/nuxt',
> 72 |     geolocation: 
     |                ^
  73 | 
  74 |     [
  75 |       'nuxt-twa-module',

= Table.Sort(#"Changed Type1",{"Id", Order.Ascending}) 

let
    Source = #"Bezirksstruktur IST",
    #"Added Index" = Table.AddIndexColumn(Source, "Index", 1, 1),
    #"Changed Type" = Table.TransformColumnTypes(#"Added Index",{"Index", Int64.Type}),
    #"Sorted Rows" = Table.Sort(#"Changed Type",{{"Index", Order.Ascending}}),
    BufferedTable = Table.Buffer(#"Sorted Rows"),
    #"Added Custom" = Table.AddColumn(BufferedTable, "RunningCount", (OT) => Table.RowCount(Table.SelectRows(BufferedTable, (IT) => IT[Index] <= OT[Index] and IT[Id] = OT[Id]))),
    #"Changed Type1" = Table.TransformColumnTypes(#"Added Custom",{{"RunningCount", Int64.Type}}),
    #"Removed Columns" = Table.RemoveColumns(#"Changed Type1",{"Index"}),
    #"Unpivoted Other Columns" = Table.UnpivotOtherColumns(#"Removed Columns", {"RunningCount", "Id"}, "Attribute", "Value"),
    #"Merged Columns" = Table.CombineColumns(Table.TransformColumnTypes(#"Unpivoted Other Columns", {{"RunningCount", type text}}, "en-GB"),{"RunningCount", "Attribute"},Combiner.CombineTextByDelimiter("-", QuoteStyle.None),"Merged"),
    #"Changed Type3" = Table.TransformColumnTypes(#"Merged Columns",{{"Value", type text}}),
    #"Pivoted Column" = Table.Pivot(#"Changed Type3", List.Distinct(#"Changed Type3"[Merged]), "Merged", "Value")
in
    #"Pivoted Column"

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