JavaScript Security Analysis

React-Related Exploits:

1. React.createElement(): If user-controlled data is passed as a prop without proper sanitization, it could lead to XSS attacks.

2. dangerouslySetInnerHTML: As the name implies, this can potentially open up to XSS attacks if the input isn't sanitized.

3. setState(): If user-controlled input is passed to setState and then rendered without proper sanitization, it could lead to XSS attacks.

4. componentDidMount(), componentDidUpdate(): React lifecycle methods that run after the initial render and after every update, respectively. If these methods include user-controlled data that isn't properly sanitized, they can potentially lead to XSS attacks.

5. props.children: If not sanitized and user-controlled, could potentially open up to XSS attacks when rendered.

Angular-Related Exploits:

1. http.get(), http.post(): If the URL or parameters are not properly validated, they could potentially be used for SSRF or even RCE attacks.

2. .subscribe(): If the data received via the subscription isn't properly sanitized, it could lead to Code Injection or XSS attacks.

3. .toPromise(): If not properly sanitized, could lead to similar exploits as .subscribe().

4. ng-bind-html: Angular directive that binds innerHTML to the result of an expression. If not properly sanitized, it can lead to XSS attacks.

5. {{ }} interpolation: Angular's double curly braces are used for data binding. If the data isn't sanitized properly, it could lead to XSS attacks.

Vue.js-Related Exploits:

1. v-html: This directive can lead to XSS attacks if the bound input isn't sanitized.

2. v-bind: If the bound expression isn't properly sanitized, it could lead to XSS attacks.

3. v-on: If the bound handler code isn't properly sanitized, it could potentially lead to Code Injection attacks.

4. v-model: Two-way data binding directive. If user-controlled input is bound and used without proper sanitization, it could lead to XSS attacks.

Express.js-Related Exploits:

1. app.get(), app.post(): If user input is processed without proper sanitization in the callback functions, they could potentially lead to Code Injection or Command Injection attacks.

2. res.send(): If user input is included without proper sanitization, it could potentially lead to HTTP Response Splitting attacks.

3. req.query, req.body, req.params: These properties could potentially be used for SQL Injection or NoSQL Injection attacks if they aren't properly sanitized.

Node.js Built-in Modules:

Node.js is a JavaScript runtime built on Chrome's V8 JavaScript engine.

1. fs.readFile(), fs.writeFile(): These methods read from and write to files, respectively. If file names or content are user-controlled and not properly sanitized, this could lead to Path Traversal or Arbitrary File Overwrite vulnerabilities.

2. child_process.exec(): Executes a shell command. If the command or arguments are user-controlled, this could lead to Command Injection attacks.

3. crypto.createCipher(): Creates a Cipher object, with the specified algorithm and password. If algorithm or password are user-controlled, this could lead to weak encryption and the exposure of sensitive data.

4. http.createServer(): Creates a new instance of http.Server. If request handlers aren't properly set up, it can potentially lead to security issues like open access to sensitive resources.

jQuery-Related Exploits:

jQuery is a fast, small, and feature-rich JavaScript library.

1. jQuery.ajax(): Makes an HTTP request. If the URL or data are not properly validated or sanitized, it could potentially be used for SSRF or XSS.

2. .html(): Sets or returns the content of selected elements. If not properly sanitized, it can lead to XSS attacks.

3. .append(), .prepend(), .before(), .after(): Insert content, specified by the parameter, to the end/beginning of each element in the set of matched elements. If the content is user-controlled and not sanitized, it can lead to XSS attacks.

4. .load(): Loads data from a server and places the returned HTML into the matched elements. If the server isn't trusted, it can lead to Code Injection or XSS attacks.

Socket.io-Related Exploits:

Socket.IO is a library for real-time web applications. It enables real-time, bidirectional, and event-based communication between the browser and the server.

1. socket.emit(), socket.on(): These methods send and handle custom events. If event names or data are user-controlled and not sanitized, they could potentially lead to Code Injection attacks.

Mongoose-Related Exploits:

Mongoose provides a straightforward, schema-based solution to model your application data for MongoDB.

1. .find(), .findOne(), .update(): These Mongoose methods can potentially be used for NoSQL Injection attacks if the filter or update objects contain user-controlled input and are not properly sanitized.

2. mongoose.connect(): Connects to a MongoDB database. If the connection string is user-controlled, this could potentially lead to SSRF or unauthorized access to the database.

Electron-Related Exploits:

Electron is a framework for creating native applications with web technologies like JavaScript, HTML, and CSS.

1. webContents.executeJavaScript(): This method can be used to run JavaScript on the renderer process (web page). If user-controlled input is injected into this function without proper sanitization, it could lead to Remote Code Execution.

2. webContents.loadURL(): This method loads the URL in the window. If the URL is user-controlled and not validated, it could lead to Universal Cross-site Scripting (UXSS) or Remote Code Execution.

3. shell.openExternal(): This method opens the given external protocol URL in the desktop's default manner. If the URL is user-controlled and not validated, it could be used for URL Scheme Hijacking attacks.

4. new BrowserWindow(): If the nodeIntegration or contextIsolation options are not set correctly when creating new windows, it could lead to Remote Code Execution.

D3.js-Related Exploits:

D3.js is a JavaScript library for producing dynamic, interactive data visualizations in web browsers.

1. d3.json(), d3.csv(), d3.xml(): These methods load external JSON, CSV, or XML data. If the URL or the way the data is used is user-controlled and not properly validated or sanitized, it could lead to Data Injection attacks or Cross-Site Scripting.

2. d3.select(), d3.selectAll(): These methods select an element or elements from the document. If the selector is user-controlled and not properly sanitized, it could potentially be used for DOM-Based Cross-Site Scripting attacks.

Lodash-Related Exploits:

Lodash is a modern JavaScript utility library delivering modularity, performance, and extras.

1. _.template(): This method compiles JavaScript templates into functions that can interpolate values. If user-controlled data is used as a template without proper sanitization, it could lead to Template Injection attacks.

2. _.merge(), _.extend(): These methods are used to merge two or more objects. If a user-controlled object is merged without validation, it could potentially lead to Prototype Pollution, which in turn can lead to more severe vulnerabilities like Remote Code Execution.

3. _.set(): This method sets the value at a path of an object. If the path is user-controlled and not validated, it could lead to Prototype Pollution.

Three.js-Related Exploits:

Three.js is a cross-browser JavaScript library and API used to create and display animated 3D computer graphics in a web browser.

1. THREE.ObjectLoader.parse(): This function parses a JSON structure and creates objects. If the JSON input is user-controlled and not validated, it could potentially be used for JSON Injection attacks.

2. THREE.FileLoader.load(): This function loads a file at the specified URL. If the URL is user-controlled and not validated, it could potentially be used for SSRF attacks.

axios-Related Exploits:

Axios is a Promise-based HTTP client for the browser and Node.js.

1. axios.get(), axios.post(): Similar to http.get/post from Angular. If the URL or parameters are not properly validated, they could potentially be used for SSRF or even RCE attacks.

2. axios.create(): Creates a new Axios instance. If the configuration is user-controlled and not validated, it could potentially be used for Misconfiguration attacks.

Redux-Related Exploits:

Redux is an open-source JavaScript library for managing application state.

1. store.dispatch(): This function dispatches an action to the Redux store. If the action or its payload is user-controlled and not validated, it could potentially be used for State Manipulation attacks.

2. createStore(): This function creates a Redux store. If the reducer is user-controlled and not validated, it could potentially lead to State Manipulation or even Code Injection attacks.

Knex.js-Related Exploits:

Knex.js is a "batteries included" SQL query builder for Postgres, MSSQL, MySQL, MariaDB, SQLite3, Oracle, and Amazon Redshift.

1. knex.raw(): This function allows raw SQL to be executed. If the raw SQL includes user-controlled input, it could potentially lead to SQL Injection attacks.

2. knex.select(), knex.where(): These methods are used to build queries. If the column names or values are user-controlled and not validated, they could potentially lead to SQL Injection attacks.

Moment.js-Related Exploits:

Moment.js is a free and open-source JavaScript library that removes the need to use the native JavaScript Date object directly.

1. moment.parseZone(): This method parses a string and converts it into a moment object in a specified timezone. If the input string is user-controlled and not validated, it could potentially lead to Parsing Manipulation attacks.

2. moment.tz(): This function allows for converting dates between timezones. If the timezone parameter is user-controlled and not validated, it could potentially lead to Timezone Manipulation attacks.

Passport.js-Related Exploits:

Passport.js is authentication middleware for Node.js, extremely flexible and modular, that can be unobtrusively dropped into any Express-based web application.

1. passport.authenticate(): This function authenticates requests. If the strategy or options are user-controlled and not validated, they could potentially lead to Authentication Bypass attacks.

These methods aren't inherently insecure, and using them isn't an automatic security risk. The potential for exploitation arises when these methods are used improperly, specifically when dealing with user input.