Ethereum Address Collider

Developed by Trent Pierce (www.SkeeBomb.com)

⚠️ CRITICAL DISCLAIMER - READ BEFORE USE

THIS TOOL IS FOR EDUCATIONAL AND RESEARCH PURPOSES ONLY

Understanding the Mathematical Reality

The probability of finding an Ethereum address collision with funds is:

1 in 2^160 (approximately 1.46 × 10^48 or 1,460,000,000,000,000,000,000,000,000,000,000,000,000,000,000,000)

What Does This Mean?

If every person on Earth (8 billion people) generated 1 trillion addresses per second
It would take approximately 58,000,000,000,000,000,000,000 years (58 sextillion years)
To have a 50% chance of finding ONE collision
For context: The universe is only 13.8 billion years old

Reality Check

"You are more likely to be struck by lightning 1,000,000 times in a row while simultaneously winning every lottery on Earth than to find a single funded Ethereum wallet through random generation."

This tool will NEVER find a funded wallet. It demonstrates cryptographic security principles.

🎓 Purpose

This project is a cryptographic education tool that demonstrates:

Ethereum Address Generation: How addresses are derived from private keys
Elliptic Curve Cryptography: Implementation of secp256k1
Cryptographic Hashing: SHA-256 and Keccak-256 (SHA3) algorithms
Key Space Analysis: Why 256-bit keys are considered secure
Python Multiprocessing: Parallel computation techniques
API Integration: Working with blockchain explorers

What This Tool Does

Generates random 256-bit private keys using cryptographically secure randomness
Derives Ethereum addresses using the secp256k1 elliptic curve
Checks address balances via the Etherscan API
Demonstrates parallel processing with Python's multiprocessing module

What This Tool Does NOT Do

❌ Find funded wallets (mathematically impossible)
❌ "Hack" or "crack" Ethereum
❌ Provide any practical way to obtain cryptocurrency
❌ Threaten blockchain security in any way

🎯 Educational Value

For Students & Developers

This project teaches:

Cryptography Concepts:

Public key cryptography fundamentals
Elliptic curve mathematics
Cryptographic hash functions
Key derivation processes
Random number generation

Programming Skills:

Python 3 multiprocessing
API integration and error handling
Process synchronization
Rate limiting implementation
Environment variable management

Security Principles:

Why cryptocurrency is secure
Key space analysis
Brute force attack futility
Secure coding practices

✨ Features

✅ Python 3.6+ Compatible - Modern, maintained codebase
✅ Pure Python Implementation - No compiled dependencies required
✅ Cross-Platform - Windows, macOS, Linux support
✅ True Multiprocessing - Utilizes all CPU cores efficiently
✅ Secure Configuration - Environment-based API key management
✅ Rate Limiting - Respects Etherscan API guidelines (5 req/sec)
✅ Comprehensive Error Handling - Robust network failure recovery
✅ Real-Time Progress - Live statistics across all workers
✅ Educational Documentation - Extensive code comments and guides

📦 Installation

Prerequisites

Python 3.6 or higher
Internet connection for API calls
Etherscan API key (free)

Step 1: Clone the Repository

git clone https://github.com/TrentPierce/Ethereum-Address-Collider.git
cd Ethereum-Address-Collider

Step 2: Install Dependencies

# Using pip
pip install -r requirements.txt

# Or using pip3 explicitly
pip3 install -r requirements.txt

Dependencies:

requests - HTTP library for API calls

Step 3: Obtain Etherscan API Key

Visit Etherscan API Registration
Create a free account
Navigate to "API Keys"
Generate a new API key
Copy your API key (keep it secret!)

Etherscan Free Tier:

5 requests per second
100,000 requests per day
Perfect for educational use

⚙️ Configuration

Environment Variable Setup

The API key must be set as an environment variable for security.

Linux / macOS

Temporary (current session only):

export ETHERSCAN_API_KEY='your_api_key_here'

Permanent (add to shell profile):

# For bash
echo 'export ETHERSCAN_API_KEY="your_api_key_here"' >> ~/.bashrc
source ~/.bashrc

# For zsh
echo 'export ETHERSCAN_API_KEY="your_api_key_here"' >> ~/.zshrc
source ~/.zshrc

Windows

Command Prompt (temporary):

set ETHERSCAN_API_KEY=your_api_key_here

PowerShell (temporary):

$env:ETHERSCAN_API_KEY='your_api_key_here'

Permanent (System Environment Variables):

Open Start Menu → Search "environment variables"
Click "Edit the system environment variables"
Click "Environment Variables"
Under "User variables", click "New"
Variable name: ETHERSCAN_API_KEY
Variable value: Your API key
Click OK

Verify Configuration

# Linux/macOS
echo $ETHERSCAN_API_KEY

# Windows PowerShell
echo $env:ETHERSCAN_API_KEY

Optional: .env File

Copy the example file and edit:

cp .env.example .env
# Edit .env with your favorite editor
nano .env

⚠️ Important: Never commit .env files to version control!

🚀 Usage

Basic Usage

python3 EthCollider.py

Expected Output

======================================================================
Ethereum Collider developed by Trent Pierce (www.SkeeBomb.com)
======================================================================

To promote development, please send donations to:
01171ab97216939Ddf49b8Ac9DFFE80b8178fcF6

WARNING: This tool is for educational purposes only.
The probability of finding a collision is astronomically low.
======================================================================

Starting 8 worker processes...
Worker 0 started (PID: 12345)
Worker 1 started (PID: 12346)
Worker 2 started (PID: 12347)
Worker 3 started (PID: 12348)
Worker 4 started (PID: 12349)
Worker 5 started (PID: 12350)
Worker 6 started (PID: 12351)
Worker 7 started (PID: 12352)

Searching for addresses with balance...
Press Ctrl+C to stop

Searched 1247 addresses across 8 workers

Stopping the Program

Press Ctrl+C to gracefully stop all worker processes.

Output Files

If a wallet is found (won't happen), it creates:

priv.prv - Private key file
found_wallet_YYYYMMDD-HHMMSS.txt - Timestamped details

🔬 How It Works

Step-by-Step Process

1. Private Key Generation

Generate 256-bit random number using OS entropy
↓
Ensure it's within valid range (1 to n-1)
↓
This is the private key

Implementation:

Uses os.urandom() for cryptographically secure randomness
Windows: Uses CryptGenRandom
Unix/Linux: Uses /dev/urandom
Validates range: 1 ≤ key < secp256k1.n

2. Public Key Derivation

Private Key (scalar)
↓
Multiply by generator point G on secp256k1 curve
↓
Result: Public Key (x, y point on curve)

Cryptographic Details:

Curve: secp256k1 (same as Bitcoin)
Generator Point: G (predefined)
Operation: Point multiplication (private_key × G)
Result: 64-byte uncompressed public key

3. Address Generation

Public Key (x, y coordinates)
↓
Concatenate x and y (64 bytes)
↓
Apply Keccak-256 hash
↓
Take last 20 bytes (40 hex characters)
↓
Ethereum Address

Format:

Raw address: 40 hexadecimal characters
Checksum version: 0x + 40 characters
Example: 0x742d35Cc6634C0532925a3b844Bc9e7595f0bEb0

4. Balance Check

Generated Address
↓
API Request to Etherscan
↓
Parse JSON response
↓
Check if balance > 0

API Endpoint:

https://api.etherscan.io/api?module=account&action=balance&address={ADDRESS}&tag=latest&apikey={KEY}

Parallel Processing Architecture

Main Process
├── Worker 0 ──> Generate → Check → Report
├── Worker 1 ──> Generate → Check → Report
├── Worker 2 ──> Generate → Check → Report
├── Worker 3 ──> Generate → Check → Report
├── Worker 4 ──> Generate → Check → Report
├── Worker 5 ──> Generate → Check → Report
├── Worker 6 ──> Generate → Check → Report
└── Worker 7 ──> Generate → Check → Report
      ↓
Result Queue (thread-safe communication)
      ↓
Main Process (aggregates and displays)

Benefits:

Linear scaling with CPU cores
Independent worker processes
Shared result queue for communication
Automatic load balancing

⚡ Performance

Throughput

Single Core:

~5 addresses per second (API rate limited)

Multi-Core (8 cores):

~40 addresses per second
8x performance improvement

Rate Limiting:

0.2 second delay between API calls
Maximum 5 requests per second per worker
Respects Etherscan free tier limits

Expected Performance

CPU Cores	Addresses/Second	Addresses/Hour	Addresses/Day
1	5	18,000	432,000
2	10	36,000	864,000
4	20	72,000	1,728,000
8	40	144,000	3,456,000
16	80	288,000	6,912,000

Reality Check: Even at 1 million addresses per second, it would take 1.46 × 10^42 years to check all possible addresses.

📊 Mathematical Analysis

Key Space Size

Ethereum Private Keys:

Size: 256 bits
Total possible keys: 2^256 ≈ 1.16 × 10^77
Valid keys (secp256k1): ~2^256

Ethereum Addresses:

Size: 160 bits (derived from public key)
Total possible addresses: 2^160 ≈ 1.46 × 10^48

Collision Probability

Using the birthday paradox formula:

For 50% collision chance:

Need to generate: √(2^160) ≈ 2^80 addresses
That's approximately: 1.21 × 10^24 addresses

At 1 billion addresses per second:

Time required: 38 billion years
Universe age: 13.8 billion years
Ratio: 2,754 times the age of the universe

Computational Infeasibility

Current fastest supercomputer (Frontier, 2024):

Speed: ~1.1 exaflops (1.1 × 10^18 operations/sec)
Assume 1 million addresses/sec (generous)

Time to 50% collision probability:

1.21 × 10^24 / (1 × 10^6) = 1.21 × 10^18 seconds
= 38 billion years

Energy Considerations:

Estimated energy to count to 2^80: More than the sun's total output
Physical impossibility, not just computational

Why Cryptocurrencies Are Secure

This mathematical reality is why:

✅ Your cryptocurrency is safe
✅ 256-bit keys are considered unbreakable
✅ Quantum computers won't help (still exponential)
✅ Brute force attacks are futile

🔐 Security Practices

This Tool Implements:

Environment Variables - No hardcoded secrets
Rate Limiting - Respects API terms of service
Secure Random Generation - Uses OS-level entropy
Error Handling - Prevents information leakage
Input Validation - Checks API responses
Process Isolation - Multiprocessing security

Best Practices

DO:

✅ Use environment variables for API keys
✅ Keep dependencies updated
✅ Review code before running
✅ Use for educational purposes only
✅ Understand the mathematics

DON'T:

❌ Commit API keys to version control
❌ Share your API key publicly
❌ Expect to find funded wallets
❌ Use for illegal purposes
❌ Modify code without understanding

⚖️ Ethical Guidelines

Legal Considerations

Educational Use:

✅ Running this tool to learn about cryptography
✅ Understanding blockchain security
✅ Academic research
✅ Security awareness training

Illegal Use:

❌ Attempting to access others' wallets
❌ Claiming found funds that aren't yours
❌ Bypassing security measures
❌ Unauthorized access attempts

Responsible Use

Understand the Purpose: This is an educational demonstration
Respect the Law: Follow all applicable laws and regulations
API Etiquette: Don't abuse Etherscan's free API service
Share Knowledge: Use what you learn to educate others
Report Vulnerabilities: If you find security issues, report them responsibly

Academic Citation

If using this in research or education:

Pierce, T. (2026). Ethereum Address Collider: A Cryptographic Education Tool.
GitHub. https://github.com/TrentPierce/Ethereum-Address-Collider

📖 Documentation

Complete Guide Collection

README.md - This file, overview and quick start
INSTALL.md - Detailed installation guide
SECURITY.md - Security practices and policies
CONTRIBUTING.md - How to contribute
CHANGELOG.md - Version history
UPGRADE_GUIDE.md - Migration from v1.0 to v2.0
LICENSE - GPL v3 license text
CODE_OF_CONDUCT.md - Community guidelines

Code Documentation

All functions include comprehensive docstrings explaining:

Purpose and functionality
Parameters and return values
Cryptographic operations
Mathematical formulas
Error handling

🤝 Contributing

We welcome contributions! Please see CONTRIBUTING.md for:

Code style guidelines
Pull request process
Development setup
Testing requirements
Documentation standards

Quick Start for Contributors

# Fork the repository
git clone https://github.com/yourusername/Ethereum-Address-Collider.git
cd Ethereum-Address-Collider

# Create feature branch
git checkout -b feature/your-feature-name

# Make changes and test
python3 EthCollider.py

# Submit pull request

💬 Support

Getting Help

Issues: GitHub Issues
Discussions: GitHub Discussions
Email: Pierce.trent@gmail.com

Common Issues

See INSTALL.md for troubleshooting guide.

💰 Support Development

If you find this educational tool valuable:

Ethereum: 0x01171ab97216939Ddf49b8Ac9DFFE80b8178fcF6

Your support helps maintain and improve this educational resource!

📜 License

This project is licensed under the GNU General Public License v3.0.

✅ Free to use, modify, and distribute
✅ Open source
✅ Must disclose source
✅ Must use same license

See LICENSE file for full text.

🙏 Acknowledgments

Credits

ECDSA Implementation: Based on FastSignVerify by Antoine FERRON
SHA3/Keccak: Implementation by Moshe Kaplan
Python Community: For excellent libraries and tools
Ethereum Foundation: For blockchain innovation
Contributors: Everyone who has improved this project

Inspiration

This project was inspired by the need to educate people about:

Why cryptocurrencies are secure
How cryptographic systems work
The mathematics behind blockchain security
Practical Python programming

📚 Further Reading

Cryptography

Ethereum

Mathematics

⚠️ Final Warning

Remember: This tool will NEVER find a funded wallet. The mathematics make it impossible. Anyone claiming otherwise either:

Doesn't understand the mathematics
Is trying to scam you
Both

Use this tool to learn, not to try to get rich. The real value is in understanding how secure modern cryptography really is.

Last Updated: January 30, 2026
Version: 2.0.0
Maintainer: Trent Pierce (@severesig)

Made with ❤️ for education and learning

Name		Name	Last commit message	Last commit date
Latest commit History 20 Commits
lib		lib
.env.example		.env.example
.gitattributes		.gitattributes
.gitignore		.gitignore
CHANGELOG.md		CHANGELOG.md
CODE_OF_CONDUCT.md		CODE_OF_CONDUCT.md
CONTRIBUTING.md		CONTRIBUTING.md
EthCollider.py		EthCollider.py
INSTALL.md		INSTALL.md
LICENSE		LICENSE
README.md		README.md
SECURITY.md		SECURITY.md
UPGRADE_GUIDE.md		UPGRADE_GUIDE.md
requirements.txt		requirements.txt

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