eth_getTransactionCount
Retrieves the total number of transactions sent from a specified account on the Bittensor network. This method returns the account's current nonce, which is essential for transaction ordering and ensuring proper execution in Bittensor's decentralized AI infrastructure and subnet operations.
Description​
The eth_getTransactionCount
method is fundamental for Bittensor blockchain interaction, providing the transaction count that serves as the nonce for new transactions. On Bittensor's network, this is crucial for AI subnet registrations, stake management, and neural network incentive transactions.
Parameters​
Parameter | Type | Required | Description |
---|---|---|---|
address | string | Yes | The Ethereum address (20-byte hex string with 0x prefix) to get transaction count for |
blockNumber | string | Yes | Block number as hex string, or block tag: "latest", "earliest", "pending", "safe", "finalized" |
Block Parameter Options​
"latest"
- Most recent confirmed block"pending"
- Include pending transactions in mempool"earliest"
- Genesis block"safe"
- Latest safe head block"finalized"
- Latest finalized block"0x..."
- Specific block number in hex
Returns​
Type: string
Returns the transaction count as a hexadecimal string (e.g., "0x15" = 21 transactions). This value represents:
- For EOA (Externally Owned Accounts): Number of transactions sent
- For Subnet Validators/Miners: Number of subnet operations performed
- For AI Model Accounts: Number of inference or training transactions
Use Cases​
- Subnet Operations: Get next nonce for subnet registration and validation transactions
- Stake Management: Sequence staking and unstaking operations correctly
- AI Model Deployment: Track neural network deployment and update transactions
- Validator Operations: Manage consensus and incentive mechanism transactions
- TAO Token Operations: Handle token transfers and delegation properly
Code Examples​
- cURL
- JavaScript
- Python
# Get latest confirmed transaction count
curl -X POST https://api-bittensor-mainnet.n.dwellir.com/YOUR_API_KEY \
-H "Content-Type: application/json" \
-d '{
"jsonrpc": "2.0",
"method": "eth_getTransactionCount",
"params": [
"0x5aAeb6053F3E94C9b9A09f33669435E7Ef1BeAed",
"latest"
],
"id": 1
}'
# Get pending transaction count for subnet operations
curl -X POST https://api-bittensor-mainnet.n.dwellir.com/YOUR_API_KEY \
-H "Content-Type: application/json" \
-d '{
"jsonrpc": "2.0",
"method": "eth_getTransactionCount",
"params": [
"0x5aAeb6053F3E94C9b9A09f33669435E7Ef1BeAed",
"pending"
],
"id": 2
}'
// Get Bittensor account nonce for subnet operations
async function getBittensorNonce(address) {
const response = await fetch('https://api-bittensor-mainnet.n.dwellir.com/YOUR_API_KEY', {
method: 'POST',
headers: { 'Content-Type': 'application/json' },
body: JSON.stringify({
jsonrpc: '2.0',
method: 'eth_getTransactionCount',
params: [address, 'latest'],
id: 1
})
});
const data = await response.json();
return parseInt(data.result, 16); // Convert hex to decimal
}
// Get pending nonce for AI subnet transactions
async function getSubnetNonce(address) {
const response = await fetch('https://api-bittensor-mainnet.n.dwellir.com/YOUR_API_KEY', {
method: 'POST',
headers: { 'Content-Type': 'application/json' },
body: JSON.stringify({
jsonrpc: '2.0',
method: 'eth_getTransactionCount',
params: [address, 'pending'],
id: 1
})
});
const data = await response.json();
return data.result; // Keep as hex for transaction building
}
// Usage for Bittensor validator operations
const validatorAddress = '0x5aAeb6053F3E94C9b9A09f33669435E7Ef1BeAed';
getBittensorNonce(validatorAddress).then(count => {
console.log(`Validator has performed ${count} operations`);
});
getSubnetNonce(validatorAddress).then(nonce => {
console.log(`Next subnet transaction nonce: ${nonce}`);
});
import requests
import json
def get_bittensor_transaction_count(address, block_tag="latest"):
"""Get transaction count for a Bittensor account"""
url = "https://api-bittensor-mainnet.n.dwellir.com/YOUR_API_KEY"
payload = {
"jsonrpc": "2.0",
"method": "eth_getTransactionCount",
"params": [address, block_tag],
"id": 1
}
response = requests.post(url, json=payload)
result = response.json()
if 'error' in result:
raise Exception(f"Bittensor RPC Error: {result['error']}")
return result['result']
def analyze_subnet_activity(address):
"""Analyze AI subnet and validator activity"""
confirmed = get_bittensor_transaction_count(address, "latest")
pending = get_bittensor_transaction_count(address, "pending")
confirmed_int = int(confirmed, 16)
pending_int = int(pending, 16)
return {
'confirmed_operations': confirmed_int,
'pending_operations': pending_int - confirmed_int,
'total_pending': pending_int,
'next_nonce': pending,
'activity_level': 'active' if confirmed_int > 0 else 'new',
'is_validator': confirmed_int > 10 # Heuristic for validator activity
}
# Example usage for Bittensor subnet operations
validator_address = "0x5aAeb6053F3E94C9b9A09f33669435E7Ef1BeAed"
miner_address = "0xfB6916095ca1df60bB79Ce92cE3Ea74c37c5d359"
# Analyze validator activity
validator_activity = analyze_subnet_activity(validator_address)
print(f"Validator Activity:")
print(f" Confirmed operations: {validator_activity['confirmed_operations']}")
print(f" Pending operations: {validator_activity['pending_operations']}")
print(f" Next nonce: {validator_activity['next_nonce']}")
print(f" Is likely validator: {validator_activity['is_validator']}")
# Get basic transaction count for miner
miner_count = get_bittensor_transaction_count(miner_address)
print(f"Miner transaction count: {int(miner_count, 16)}")
Response Examples​
Latest Block Transaction Count​
{
"jsonrpc": "2.0",
"id": 1,
"result": "0x15"
}
Pending Transaction Count​
{
"jsonrpc": "2.0",
"id": 2,
"result": "0x17"
}
Important Notes​
Nonce Management for AI Operations​
- Subnet Registration: Each subnet operation requires sequential nonce usage
- Validation Transactions: Validators must maintain proper nonce order for consensus
- Stake Operations: Staking and unstaking transactions need correct sequencing
- AI Model Updates: Neural network parameter updates require ordered transactions
Bittensor-Specific Considerations​
- Subnet Coordination: Multiple subnet operations may require nonce management
- TAO Token Operations: Token transfers and delegations follow standard nonce rules
- Validator Consensus: Proper nonce sequencing critical for network participation
- Mining Operations: Miners need accurate nonce tracking for reward transactions
Best Practices​
- Always use "pending" when preparing AI subnet transactions
- Monitor nonce progression for high-frequency validation operations
- Handle nonce gaps carefully in automated subnet management systems
- Cache nonce values briefly for batch AI operations
Network Specifics​
- Bittensor inherits Ethereum's nonce system for transaction ordering
- AI subnet operations require careful transaction sequencing
- Validator and miner operations depend on proper nonce management
- Decentralized intelligence networks benefit from reliable transaction ordering
Common Use Cases​
- Subnet Management: Register and manage AI subnets with proper transaction sequencing
- Validator Operations: Participate in consensus with correctly ordered transactions
- Stake Management: Handle TAO token staking with sequential nonce usage
- AI Model Deployment: Deploy and update neural networks with ordered transactions
- Mining Operations: Submit mining results with proper transaction sequencing
Need help? Contact our support team or check the Bittensor documentation.