Home
Romium
Romium Crypto Currency is an environmentally friendly crypto that does not destroy Hard Drives and SSD’s like Chia and it doesn’t waste electricity like BitCoin.
Romium is better than BitCoins and Ethereum. ROM (read only memory) rarely fails and it can be a crypto work-horse mining romium coins for decades. It’s times to care about your environment and not overdo electricity consumption.
Ethical Crypto Currency
So make sure if you want a digital currency that is ethical, you must consider becoming part of something larger than main stream coins!
Romium is based on Read-Only-Memory (ROM) that are already manufactured, like vintage video game cartridges.
Because Governments are printing money like crazy doing Quantitative Easing (QE), inflation is out of control. Hyper inflation may be here sooner than you think. Trust does not exist. The Gov’t is not here to help you. They want to raise taxes on you! Fiat currencies are dying, so you may want to consider the near future. It’s approaching faster than ever before in history.
Future Digital Currency
The future is digital currency and digital assets. Are you ready? Please contact us if you’d like to get involved today!
ROMIUM CODE
We are looking for delevopers to help us with the beta release of Romium Crypto Currency
Romium Crypto Currency Part 1: Setting Up the Development Environment Objective: Configure the necessary tools and libraries for development.
Tasks:
- Set up a Linux or macOS environment for development.
- Install Bitcoin Core development dependencies (e.g., build-essential, libssl-dev, libboost-all-dev, etc.).
- Install Python with necessary packages for scripting (like cryptography for cryptographic operations).
- Ensure you have a version control system like Git.
Part 2: Basic Blockchain Structure Objective: Create the core blockchain structure based on Bitcoin but adapted for Romium. Tasks:
- Fork and modify Bitcoin Core for Romium’s basic structure.
- Adjust block time, total supply, reward structure.
- Implement Romium class as shown above.
Python
</p> <p><code>class Romium(CBlock): # Implementation specifics pass def adjust_difficulty(current_difficulty, last_block_time): # Difficulty adjustment logic pass</code></p> <p>
Part 3: Cryptography Enhancements Objective: Enhance security with custom cryptographic methods.
Tasks:
- Implement key pair generation, signing, and verification functions.
- Create a custom encryption method or enhance existing ones for transaction security.
Python
</p> <p><code>def generate_keypair(): # Implementation pass def sign_message(private_key, message): # Implementation pass def verify_signature(public_key, message, signature): # Implementation pass</code></p> <p>
Part 4: Networking Layer Objective: Establish peer-to-peer networking for Romium.
Tasks:
- Adapt Bitcoin’s networking or use libp2p for peer discovery and communication.
- Implement transaction relay functions.
Python
</p> <p><code>def start_network(): # Setup network pass def relay_transaction(tx): # Broadcast transaction pass</code></p> <p>
Part 5: Mining Algorithm Objective: Implement SHA-256 mining with potential for ASIC resistance. Tasks:
- Write the mining function.
- Prepare for future ASIC resistance by designing for easy algorithm switch.
python
Python
</p> <p><code>def mine_block(block): # Simplified mining function pass</code></p> <p>
Part 6: Wallet Functionality Objective: Develop basic wallet operations. Tasks:
- Implement wallet creation, transaction sending, and receiving.
Python
<code>def create_wallet(): # Wallet creation logic pass</code>
Part 7: Smart Contract Platform (Optional) Objective: Add basic smart contract capabilities if desired. Tasks:
- Design a simple smart contract system inspired by Ethereum.
- Implement contract deployment and execution.
Part 8: Testing Framework Objective: Ensure the software is robust through testing. Tasks:
- Write unit and integration tests.
- Set up a local testnet for comprehensive testing.
Part 9: Security Enhancements and Audit Objective: Implement additional security features. Tasks:
- Add multi-signature and time-locks.
- Conduct security audits either through custom tools or third-party services.
Part 10: Finalization and Deployment Objective: Prepare for deployment and community interaction. Tasks:
- Write a comprehensive README.
- Deploy a test network for community feedback.
- Plan for governance model integration.
For each part, you would need to:
- Write detailed code with proper error handling and documentation.
- Perform individual testing before integrating with the whole.
- Ensure each component can be audited or maintained independently.
This breakdown allows for sequential development where each part can be completed, tested, and potentially revised before moving to the next. Remember, creating a cryptocurrency involves not just coding but also community building, ongoing security, and possibly legal considerations.
Python
<code>class TestBlockchain(unittest.TestCase): # Various test methods pass</code>
Basic Core Components of Romium
import hashlib import time class Block: def __init__(self, index, transactions, timestamp, previous_hash): self.index = index self.transactions = transactions self.timestamp = timestamp self.previous_hash = previous_hash self.nonce = 0 self.hash = self.calculate_hash() def calculate_hash(self): block_string = f"{self.index}{self.transactions}{self.timestamp}{self.previous_hash}{self.nonce}" return hashlib.sha256(block_string.encode()).hexdigest() def mine_block(self, difficulty): target = "0" * difficulty while self.hash[:difficulty] != target: self.nonce += 1 self.hash = self.calculate_hash() class Transaction: def __init__(self, from_address, to_address, amount): self.from_address = from_address self.to_address = to_address self.amount = amount class Blockchain: def __init__(self, difficulty=4): self.chain = [self.create_genesis_block()] self.difficulty = difficulty self.pending_transactions = [] self.mining_reward = 1 def create_genesis_block(self): return Block(0, [], int(time.time()), "0") def get_latest_block(self): return self.chain[-1] def mine_pending_transactions(self, miner_address): block = Block(len(self.chain), self.pending_transactions, int(time.time()), self.get_latest_block().hash) block.mine_block(self.difficulty) print(f"Block mined: {block.hash}") self.chain.append(block) self.pending_transactions = [ Transaction("Network", miner_address, self.mining_reward) ] def add_transaction(self, transaction): if transaction.from_address == "Network": self.pending_transactions.append(transaction) return len(self.chain) else: # In a real scenario, you'd validate the transaction here self.pending_transactions.append(transaction) return len(self.chain) + 1 def is_chain_valid(self): for i in range(1, len(self.chain)): current_block = self.chain[i] previous_block = self.chain[i-1] if current_block.hash != current_block.calculate_hash(): return False if current_block.previous_hash != previous_block.hash: return False return True # Example usage romium = Blockchain() # Adding transactions romium.add_transaction(Transaction("Alice", "Bob", 100)) romium.add_transaction(Transaction("Charlie", "Alice", 50)) # Mining a block romium.mine_pending_transactions("Miner_Address_1") # Adding more transactions and mining another block romium.add_transaction(Transaction("Bob", "Charlie", 25)) romium.mine_pending_transactions("Miner_Address_2") # Print the blockchain for block in romium.chain: print(f"Block #{block.index}") print(f"Hash: {block.hash}") print(f"Previous Hash: {block.previous_hash}") print(f"Nonce: {block.nonce}") print(f"Transactions: {block.transactions}") print("\n") # Validate the blockchain print(f"Is blockchain valid? {romium.is_chain_valid()}")