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At least 18 popular JavaScript code packages that are collectively downloaded more than two billion times each week were briefly compromised with malicious software today, after a developer involved in maintaining the projects was phished. The attack appears to have been quickly contained and was narrowly focused on stealing cryptocurrency. But experts warn that a similar attack with a slightly more nefarious payload could lead to a disruptive malware outbreak that is far more difficult to detect and restrain.
This phishing email lured a developer into logging in at a fake NPM website and supplying a one-time token for two-factor authentication. The phishers then used that developer’s NPM account to add malicious code to at least 18 popular JavaScript code packages.
Aikido is a security firm in Belgium that monitors new code updates to major open-source code repositories, scanning any code updates for suspicious and malicious code. In a blog post published today, Aikido said its systems found malicious code had been added to at least 18 widely-used code libraries available on NPM (short for) “Node Package Manager,” which acts as a central hub for JavaScript development and the latest updates to widely-used JavaScript components.
JavaScript is a powerful web-based scripting language used by countless websites to build a more interactive experience with users, such as entering data into a form. But there’s no need for each website developer to build a program from scratch for entering data into a form when they can just reuse already existing packages of code at NPM that are specifically designed for that purpose.
Unfortunately, if cybercriminals manage to phish NPM credentials from developers, they can introduce malicious code that allows attackers to fundamentally control what people see in their web browser when they visit a website that uses one of the affected code libraries.
According to Aikido, the attackers injected a piece of code that silently intercepts cryptocurrency activity in the browser, “manipulates wallet interactions, and rewrites payment destinations so that funds and approvals are redirected to attacker-controlled accounts without any obvious signs to the user.”
“This malware is essentially a browser-based interceptor that hijacks both network traffic and application APIs,” Aikido researcher Charlie Eriksen wrote. “What makes it dangerous is that it operates at multiple layers: Altering content shown on websites, tampering with API calls, and manipulating what users’ apps believe they are signing. Even if the interface looks correct, the underlying transaction can be redirected in the background.”
Aikido said it used the social network Bsky to notify the affected developer, Josh Junon, who quickly replied that he was aware of having just been phished. The phishing email that Junon fell for was part of a larger campaign that spoofed NPM and told recipients they were required to update their two-factor authentication (2FA) credentials. The phishing site mimicked NPM’s login page, and intercepted Junon’s credentials and 2FA token. Once logged in, the phishers then changed the email address on file for Junon’s NPM account, temporarily locking him out.
Aikido notified the maintainer on Bluesky, who replied at 15:15 UTC that he was aware of being compromised, and starting to clean up the compromised packages.
Junon also issued a mea culpa on HackerNews, telling the community’s coder-heavy readership, “Hi, yep I got pwned.”
“It looks and feels a bit like a targeted attack,” Junon wrote. “Sorry everyone, very embarrassing.”
Philippe Caturegli, “chief hacking officer” at the security consultancy Seralys, observed that the attackers appear to have registered their spoofed website — npmjs[.]help — just two days before sending the phishing email. The spoofed website used services from dnsexit[.]com, a “dynamic DNS” company that also offers “100% free” domain names that can instantly be pointed at any IP address controlled by the user.
Junon’s mea cupla on Hackernews today listed the affected packages.
Caturegli said it’s remarkable that the attackers in this case were not more ambitious or malicious with their code modifications.
“The crazy part is they compromised billions of websites and apps just to target a couple of cryptocurrency things,” he said. “This was a supply chain attack, and it could easily have been something much worse than crypto harvesting.”
Akito’s Eriksen agreed, saying countless websites dodged a bullet because this incident was handled in a matter of hours. As an example of how these supply-chain attacks can escalate quickly, Eriksen pointed to another compromise of an NPM developer in late August that added malware to “nx,” an open-source code development toolkit with as many as six million weekly downloads.
In the nx compromise, the attackers introduced code that scoured the user’s device for authentication tokens from programmer destinations like GitHub and NPM, as well as SSH and API keys. But instead of sending those stolen credentials to a central server controlled by the attackers, the malicious code created a new public repository in the victim’s GitHub account, and published the stolen data there for all the world to see and download.
Eriksen said coding platforms like GitHub and NPM should be doing more to ensure that any new code commits for broadly-used packages require a higher level of attestation that confirms the code in question was in fact submitted by the person who owns the account, and not just by that person’s account.
“More popular packages should require attestation that it came through trusted provenance and not just randomly from some location on the Internet,” Eriksen said. “Where does the package get uploaded from, by GitHub in response to a new pull request into the main branch, or somewhere else? In this case, they didn’t compromise the target’s GitHub account. They didn’t touch that. They just uploaded a modified version that didn’t come where it’s expected to come from.”
Eriksen said code repository compromises can be devastating for developers, many of whom end up abandoning their projects entirely after such an incident.
“It’s unfortunate because one thing we’ve seen is people have their projects get compromised and they say, ‘You know what, I don’t have the energy for this and I’m just going to deprecate the whole package,'” Eriksen said.
Kevin Beaumont, a frequently quoted security expert who writes about security incidents at the blog doublepulsar.com, has been following this story closely today in frequent updates to his account on Mastodon. Beaumont said the incident is a reminder that much of the planet still depends on code that is ultimately maintained by an exceedingly small number of people who are mostly overburdened and under-resourced.
“For about the past 15 years every business has been developing apps by pulling in 178 interconnected libraries written by 24 people in a shed in Skegness,” Beaumont wrote on Mastodon. “For about the past 2 years orgs have been buying AI vibe coding tools, where some exec screams ‘make online shop’ into a computer and 389 libraries are added and an app is farted out. The output = if you want to own the world’s companies, just phish one guy in Skegness.”
Image: https://infosec.exchange/@GossiTheDog@cyberplace.social.
Aikido recently launched a product that aims to help development teams ensure that every code library used is checked for malware before it can be used or installed. Nicholas Weaver, a researcher with the International Computer Science Institute, a nonprofit in Berkeley, Calif., said Aikido’s new offering exists because many organizations are still one successful phishing attack away from a supply-chain nightmare.
Weaver said these types of supply-chain compromises will continue as long as people responsible for maintaining widely-used code continue to rely on phishable forms of 2FA.
“NPM should only support phish-proof authentication,” Weaver said, referring to physical security keys that are phish-proof — meaning that even if phishers manage to steal your username and password, they still can’t log in to your account without also possessing that physical key.
“All critical infrastructure needs to use phish-proof 2FA, and given the dependencies in modern software, archives such as NPM are absolutely critical infrastructure,” Weaver said. “That NPM does not require that all contributor accounts use security keys or similar 2FA methods should be considered negligence.”
A Model Context Protocol (MCP) server implementation that integrates with Firecrawl for web scraping capabilities.
Big thanks to @vrknetha, @cawstudios for the initial implementation!
You can also play around with our MCP Server on MCP.so's playground. Thanks to MCP.so for hosting and @gstarwd for integrating our server.
FreshRSS 
env FIRECRAWL_API_KEY=fc-YOUR_API_KEY npx -y firecrawl-mcp
npm install -g firecrawl-mcp
Configuring Cursor 🖥️ Note: Requires Cursor version 0.45.6+ For the most up-to-date configuration instructions, please refer to the official Cursor documentation on configuring MCP servers: Cursor MCP Server Configuration Guide
To configure Firecrawl MCP in Cursor v0.45.6
env FIRECRAWL_API_KEY=your-api-key npx -y firecrawl-mcp
To configure Firecrawl MCP in Cursor v0.48.6
json { "mcpServers": { "firecrawl-mcp": { "command": "npx", "args": ["-y", "firecrawl-mcp"], "env": { "FIRECRAWL_API_KEY": "YOUR-API-KEY" } } } }
If you are using Windows and are running into issues, try
cmd /c "set FIRECRAWL_API_KEY=your-api-key && npx -y firecrawl-mcp"
Replace your-api-key with your Firecrawl API key. If you don't have one yet, you can create an account and get it from https://www.firecrawl.dev/app/api-keys
After adding, refresh the MCP server list to see the new tools. The Composer Agent will automatically use Firecrawl MCP when appropriate, but you can explicitly request it by describing your web scraping needs. Access the Composer via Command+L (Mac), select "Agent" next to the submit button, and enter your query.
Add this to your ./codeium/windsurf/model_config.json:
{
"mcpServers": {
"mcp-server-firecrawl": {
"command": "npx",
"args": ["-y", "firecrawl-mcp"],
"env": {
"FIRECRAWL_API_KEY": "YOUR_API_KEY"
}
}
}
}
To install Firecrawl for Claude Desktop automatically via Smithery:
npx -y @smithery/cli install @mendableai/mcp-server-firecrawl --client claude
FIRECRAWL_API_KEY: Your Firecrawl API keyFIRECRAWL_API_URL
FIRECRAWL_API_URL (Optional): Custom API endpoint for self-hosted instanceshttps://firecrawl.your-domain.com
FIRECRAWL_RETRY_MAX_ATTEMPTS: Maximum number of retry attempts (default: 3)FIRECRAWL_RETRY_INITIAL_DELAY: Initial delay in milliseconds before first retry (default: 1000)FIRECRAWL_RETRY_MAX_DELAY: Maximum delay in milliseconds between retries (default: 10000)FIRECRAWL_RETRY_BACKOFF_FACTOR: Exponential backoff multiplier (default: 2)FIRECRAWL_CREDIT_WARNING_THRESHOLD: Credit usage warning threshold (default: 1000)FIRECRAWL_CREDIT_CRITICAL_THRESHOLD: Credit usage critical threshold (default: 100)For cloud API usage with custom retry and credit monitoring:
# Required for cloud API
export FIRECRAWL_API_KEY=your-api-key
# Optional retry configuration
export FIRECRAWL_RETRY_MAX_ATTEMPTS=5 # Increase max retry attempts
export FIRECRAWL_RETRY_INITIAL_DELAY=2000 # Start with 2s delay
export FIRECRAWL_RETRY_MAX_DELAY=30000 # Maximum 30s delay
export FIRECRAWL_RETRY_BACKOFF_FACTOR=3 # More aggressive backoff
# Optional credit monitoring
export FIRECRAWL_CREDIT_WARNING_THRESHOLD=2000 # Warning at 2000 credits
export FIRECRAWL_CREDIT_CRITICAL_THRESHOLD=500 # Critical at 500 credits
For self-hosted instance:
# Required for self-hosted
export FIRECRAWL_API_URL=https://firecrawl.your-domain.com
# Optional authentication for self-hosted
export FIRECRAWL_API_KEY=your-api-key # If your instance requires auth
# Custom retry configuration
export FIRECRAWL_RETRY_MAX_ATTEMPTS=10
export FIRECRAWL_RETRY_INITIAL_DELAY=500 # Start with faster retries
Add this to your claude_desktop_config.json:
{
"mcpServers": {
"mcp-server-firecrawl": {
"command": "npx",
"args": ["-y", "firecrawl-mcp"],
"env": {
"FIRECRAWL_API_KEY": "YOUR_API_KEY_HERE",
"FIRECRAWL_RETRY_MAX_ATTEMPTS": "5",
"FIRECRAWL_RETRY_INITIAL_DELAY": "2000",
"FIRECRAWL_RETRY_MAX_DELAY": "30000",
"FIRECRAWL_RETRY_BACKOFF_FACTOR": "3",
"FIRECRAWL_CREDIT_WARNING_THRESHOLD": "2000",
"FIRECRAWL_CREDIT_CRITICAL_THRESHOLD": "500"
}
}
}
}
The server includes several configurable parameters that can be set via environment variables. Here are the default values if not configured:
const CONFIG = {
retry: {
maxAttempts: 3, // Number of retry attempts for rate-limited requests
initialDelay: 1000, // Initial delay before first retry (in milliseconds)
maxDelay: 10000, // Maximum delay between retries (in milliseconds)
backoffFactor: 2, // Multiplier for exponential backoff
},
credit: {
warningThreshold: 1000, // Warn when credit usage reaches this level
criticalThreshold: 100, // Critical alert when credit usage reaches this level
},
};
These configurations control:
Retry Behavior
Automatically retries failed requests due to rate limits
Example: With default settings, retries will be attempted at:
Credit Usage Monitoring
The server utilizes Firecrawl's built-in rate limiting and batch processing capabilities:
firecrawl_scrape)Scrape content from a single URL with advanced options.
{
"name": "firecrawl_scrape",
"arguments": {
"url": "https://example.com",
"formats": ["markdown"],
"onlyMainContent": true,
"waitFor": 1000,
"timeout": 30000,
"mobile": false,
"includeTags": ["article", "main"],
"excludeTags": ["nav", "footer"],
"skipTlsVerification": false
}
}
firecrawl_batch_scrape)Scrape multiple URLs efficiently with built-in rate limiting and parallel processing.
{
"name": "firecrawl_batch_scrape",
"arguments": {
"urls": ["https://example1.com", "https://example2.com"],
"options": {
"formats": ["markdown"],
"onlyMainContent": true
}
}
}
Response includes operation ID for status checking:
{
"content": [
{
"type": "text",
"text": "Batch operation queued with ID: batch_1. Use firecrawl_check_batch_status to check progress."
}
],
"isError": false
}
firecrawl_check_batch_status)Check the status of a batch operation.
{
"name": "firecrawl_check_batch_status",
"arguments": {
"id": "batch_1"
}
}
firecrawl_search)Search the web and optionally extract content from search results.
{
"name": "firecrawl_search",
"arguments": {
"query": "your search query",
"limit": 5,
"lang": "en",
"country": "us",
"scrapeOptions": {
"formats": ["markdown"],
"onlyMainContent": true
}
}
}
firecrawl_crawl)Start an asynchronous crawl with advanced options.
{
"name": "firecrawl_crawl",
"arguments": {
"url": "https://example.com",
"maxDepth": 2,
"limit": 100,
"allowExternalLinks": false,
"deduplicateSimilarURLs": true
}
}
firecrawl_extract)Extract structured information from web pages using LLM capabilities. Supports both cloud AI and self-hosted LLM extraction.
{
"name": "firecrawl_extract",
"arguments": {
"urls": ["https://example.com/page1", "https://example.com/page2"],
"prompt": "Extract product information including name, price, and description",
"systemPrompt": "You are a helpful assistant that extracts product information",
"schema": {
"type": "object",
"properties": {
"name": { "type": "string" },
"price": { "type": "number" },
"description": { "type": "string" }
},
"required": ["name", "price"]
},
"allowExternalLinks": false,
"enableWebSearch": false,
"includeSubdomains": false
}
}
Example response:
{
"content": [
{
"type": "text",
"text": {
"name": "Example Product",
"price": 99.99,
"description": "This is an example product description"
}
}
],
"isError": false
}
urls: Array of URLs to extract information fromprompt: Custom prompt for the LLM extractionsystemPrompt: System prompt to guide the LLMschema: JSON schema for structured data extractionallowExternalLinks: Allow extraction from external linksenableWebSearch: Enable web search for additional contextincludeSubdomains: Include subdomains in extractionWhen using a self-hosted instance, the extraction will use your configured LLM. For cloud API, it uses Firecrawl's managed LLM service.
Conduct deep web research on a query using intelligent crawling, search, and LLM analysis.
{
"name": "firecrawl_deep_research",
"arguments": {
"query": "how does carbon capture technology work?",
"maxDepth": 3,
"timeLimit": 120,
"maxUrls": 50
}
}
Arguments:
Returns:
Generate a standardized llms.txt (and optionally llms-full.txt) file for a given domain. This file defines how large language models should interact with the site.
{
"name": "firecrawl_generate_llmstxt",
"arguments": {
"url": "https://example.com",
"maxUrls": 20,
"showFullText": true
}
}
Arguments:
Returns:
The server includes comprehensive logging:
Example log messages:
[INFO] Firecrawl MCP Server initialized successfully
[INFO] Starting scrape for URL: https://example.com
[INFO] Batch operation queued with ID: batch_1
[WARNING] Credit usage has reached warning threshold
[ERROR] Rate limit exceeded, retrying in 2s...
The server provides robust error handling:
Example error response:
{
"content": [
{
"type": "text",
"text": "Error: Rate limit exceeded. Retrying in 2 seconds..."
}
],
"isError": true
}
# Install dependencies
npm install
# Build
npm run build
# Run tests
npm test
npm test
MIT License - see LICENSE file for details
JSpector is a Burp Suite extension that passively crawls JavaScript files and automatically creates issues with URLs, endpoints and dangerous methods found on the JS files.
Before installing JSpector, you need to have Jython installed on Burp Suite.
Extensions tab.Add button in the Installed tab.Extension Details dialog box, select Python as the Extension Type.Select file button and navigate to the JSpector.py.Next button.Close button.Dashboard tab.
Focused on protecting highly sensitive data, temcrypt is an advanced multi-layer data evolutionary encryption mechanism that offers scalable complexity over time, and is resistant to common brute force attacks.
You can create your own applications, scripts and automations when deploying it.
Find out what temcrypt stands for, the features and inspiration that led me to create it and much more. READ THE KNOWLEDGE DOCUMENT. This is very important to you.
temcrypt is compatible with both Node.js v18 or major, and modern web browsers, allowing you to use it in various environments.
The only dependencies that temcrypt uses are crypto-js for handling encryption algorithms like AES-256, SHA-256 and some encoders and fs is used for file handling with Node.js
To use temcrypt, you need to have Node.js installed. Then, you can install temcrypt using npm:
npm install temcryptafter that, import it in your code as follows:
const temcrypt = require("temcrypt");Includes an auto-install feature for its dependencies, so you don't have to worry about installing them manually. Just run the temcrypt.js library and the dependencies will be installed automatically and then call it in your code, this was done to be portable:
node temcrypt.jsAlternatively, you can use temcrypt directly in the browser by including the following script tag:
<script src="temcrypt.js"></script>or minified:
<script src="temcrypt.min.js"></script>You can also call the library on your website or web application from a CDN:
<script src="https://cdn.jsdelivr.net/gh/jofpin/temcrypt/temcrypt.min.js"></script>temcrypt provides functions like encrypt and decrypt to securely protect and disclose your information.
Parameters
dataString (string): The string data to encrypt.dataFiles (string): The file path to encrypt. Provide either dataString or dataFiles.mainKey (string): The main key (private) for encryption.extraBytes (number, optional): Additional bytes to add to the encryption. Is an optional parameter used in the temcrypt encryption process. It allows you to add extra bytes to the encrypted data, increasing the complexity of the encryption, which requires more processing power to decrypt. It also serves to make patterns lose by changing the weight of the encryption.
Returns
status (boolean): true to indicate successful decryption.hash (string): The unique hash generated for the legitimacy verify of the encrypted data.dataString (string) or dataFiles: The decrypted string or the file path of the decrypted file, depending on the input.updatedEncryptedData (string): The updated encrypted data after decryption. The updated encrypted data after decryption. Every time the encryption is decrypted, the output is updated, because the mainKey changes its order and the new date of last decryption is saved.creationDate (string): The creation date of the encrypted data.lastDecryptionDate (string): The date of the last successful decryption of the data.dataString is provided: hash (string): The unique hash generated for the legitimacy verify of the encrypted data.mainKey (string): The main key (private) used for encryption.timeKey (string): The time key (private) of the encryption.dataString (string): The encrypted string.extraBytes (number, optional): The extra bytes used for encryption.dataFiles is provided: hash (string): The unique hash generated for the legitimacy verify of the encrypted data.mainKey (string): The main key used for encryption.timeKey (string): The time key of the encryption.dataFiles (string): The file path of the encrypted file.extraBytes (number, optional): The extra bytes used for encryption.status (boolean): false to indicate decryption failure.error_code (number): An error code indicating the reason for decryption failure.message (string): A descriptive error message explaining the decryption failure.Here are some examples of how to use temcrypt. Please note that when encrypting, you must enter a key and save the hour and minute that you encrypted the information. To decrypt the information, you must use the same main key at the same hour and minute on subsequent days:
const dataToEncrypt = "Sensitive data";
const mainKey = "your_secret_key"; // Insert your custom key
const encryptedData = temcrypt.encrypt({
dataString: dataToEncrypt,
mainKey: mainKey
});
console.log(encryptedData);const encryptedData = "..."; // Encrypted data obtained from the encryption process
const mainKey = "your_secret_key";
const decryptedData = temcrypt.decrypt({
dataString: encryptedData,
mainKey: mainKey
});
console.log(decryptedData);Encrypt a File:
To encrypt a file using temcrypt, you can use the encrypt function with the dataFiles parameter. Here's an example of how to encrypt a file and obtain the encryption result:
const temcrypt = require("temcrypt");
const filePath = "path/test.txt";
const mainKey = "your_secret_key";
const result = temcrypt.encrypt({
dataFiles: filePath,
mainKey: mainKey,
extraBytes: 128 // Optional: Add 128 extra bytes
});
console.log(result);In this example, replace 'test.txt' with the actual path to the file you want to encrypt and set 'your_secret_key' as the main key for the encryption. The result object will contain the encryption details, including the unique hash, main key, time key, and the file path of the encrypted file.
Decrypt a File:
To decrypt a file that was previously encrypted with temcrypt, you can use the decrypt function with the dataFiles parameter. Here's an example of how to decrypt a file and obtain the decryption result:
const temcrypt = require("temcrypt");
const filePath = "path/test.txt.trypt";
const mainKey = "your_secret_key";
const result = temcrypt.decrypt({
dataFiles: filePath,
mainKey: mainKey
});
console.log(result);In this example, replace 'path/test.txt.trypt' with the actual path to the encrypted file, and set 'your_secret_key' as the main key for decryption. The result object will contain the decryption status and the decrypted data, if successful.
Remember to provide the correct main key used during encryption to successfully decrypt the file, at the exact same hour and minute that it was encrypted. If the main key is wrong or the file was tampered with or the time is wrong, the decryption status will be false and the decrypted data will not be available.
temcrypt provides utils functions to perform additional operations beyond encryption and decryption. These utility functions are designed to enhance the functionality and usability.
Function List:
Below, you can see the details and how to implement its uses.
Update MainKey:
The changeKey utility function allows you to change the mainKey used to encrypt the data while keeping the encrypted data intact. This is useful when you want to enhance the security of your encrypted data or update the mainKey periodically.
dataFiles (optional): The path to the file that was encrypted using temcrypt.dataString (optional): The encrypted string that was generated using temcrypt.mainKey (string): The current mainKey used to encrypt the data.newKey(string): The new mainKey that will replace the current mainKey.const temcrypt = require("temcrypt");
const filePath = "test.txt.trypt";
const currentMainKey = "my_recent_secret_key";
const newMainKey = "new_recent_secret_key";
// Update mainKey for the encrypted file
const result = temcrypt.utils({
changeKey: {
dataFiles: filePath,
mainKey: currentMainKey,
newKey: newMainKey
}
});
console.log(result.message);Check Data Integrity:
The check utility function allows you to verify the integrity of the data encrypted using temcrypt. It checks whether a file or a string is a valid temcrypt encrypted data.
dataFiles (optional): The path to the file that you want to check.dataString (optional): The encrypted string that you want to check.const temcrypt = require("temcrypt");
const filePath = "test.txt.trypt";
const encryptedString = "..."; // Encrypted string generated by temcrypt
// Check the integrity of the encrypted File
const result = temcrypt.utils({
check: {
dataFiles: filePath
}
});
console.log(result.message);
// Check the integrity of the encrypted String
const result2 = temcrypt.utils({
check: {
dataString: encryptedString
}
});
console.log(result2.message);Verify Hash:
The verify utility function allows you to verify the integrity of encrypted data using its hash value. Checks if the encrypted data output matches the provided hash value.
hash (string): The hash value to verify against.dataFiles (optional): The path to the file whose hash you want to verify.dataString (optional): The encrypted string whose hash you want to verify.const temcrypt = require("temcrypt");
const filePath = "test.txt.trypt";
const hashToVerify = "..."; // The hash value to verify
// Verify the hash of the encrypted File
const result = temcrypt.utils({
verify: {
hash: hashToVerify,
dataFiles: filePath
}
});
console.log(result.message);
// Verify the hash of the encrypted String
const result2 = temcrypt.utils({
verify: {
hash: hashToVerify,
dataString: encryptedString
}
});
console.log(result2.message);The following table presents the important error codes and their corresponding error messages used by temcrypt to indicate various error scenarios.
| Code | Error Message | Description |
|---|---|---|
| 420 | Decryption time limit exceeded | The decryption process took longer than the allowed time limit. |
| 444 | Decryption failed | The decryption process encountered an error. |
| 777 | No data provided | No data was provided for the operation. |
| 859 | Invalid temcrypt encrypted string | The provided string is not a valid temcrypt encrypted string. |
Check out the examples directory for more detailed usage examples.
WARNINGThe encryption size of a string or file should be less than 16 KB (kilobytes). If it's larger, you must have enough computational power to decrypt it. Otherwise, your personal computer will exceed the time required to find the correct main key combination and proper encryption formation, and it won't be able to decrypt the information.
TIPS
- With temcrypt you can only decrypt your information in later days with the key that you entered at the same hour and minute that you encrypted.
- Focus on time, it is recommended to start the decryption between the first 2 to 10 seconds, so you have an advantage to generate the correct key formation.
The content of this project itself is licensed under the Creative Commons Attribution 3.0 license, and the underlying source code used to format and display that content is licensed under the MIT license.
Copyright (c) 2023 by Jose Pino
