Unlock Limitless MEV Opportunities with JitoX: Your AI-Driven Solana Profit Engine

Unlock Limitless MEV Opportunities with JitoX: Your AI-Driven Solana Profit Engine

JitoX combines AI-driven MEV strategies with seamless blockchain integration to showcase unmatched profit potential for Solana traders.

JitoX combines AI-driven MEV strategies with seamless blockchain integration to showcase unmatched profit potential for Solana traders.

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DEXes

Optimized for seamless trading on DEXs like Serum, Raydium, and Orca—never miss a move.

Jito X

Nexus

Jito Nexus Upgraded.

Jito Nexus has transformed into JitoX, delivering advanced MEV solutions with enhanced features, better performance, and seamless user experience."

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from solana.rpc.api import Client

from solana.publickey import PublicKey

from solana.transaction import Transaction

from solana.keypair import Keypair

from spl.token.instructions import TransferCheckedParams, transfer_checked

import time

# Connect to Solana RPC node

SOLANA_NODE = "https://api.mainnet-beta.solana.com"

client = Client(SOLANA_NODE)

# Wallet and private key

PRIVATE_KEY = [/* Insert 64-byte private key array here */]

wallet = Keypair.from_secret_key(bytes(PRIVATE_KEY))

WALLET_ADDRESS = str(wallet.public_key)

# DEX-related parameters

SERUM_MARKET_ADDRESS = "YourSerumMarketAddress"

TARGET_TOKEN_ADDRESS = "YourTargetTokenMintAddress"

USDC_TOKEN_ADDRESS = "YourUSDCTokenMintAddress"

# Threshold for profitable arbitrage

MIN_PROFIT_THRESHOLD = 0.05 # Example: 5% profit

# Monitor DEX price spreads

def get_price_spread():

# Simulated function for fetching order book prices from Serum

bids = client.get_orderbook(SERUM_MARKET_ADDRESS, "bids")

asks = client.get_orderbook(SERUM_MARKET_ADDRESS, "asks")

if bids and asks:

highest_bid = max(bid['price'] for bid in bids)

lowest_ask = min(ask['price'] for ask in asks)

return highest_bid, lowest_ask

return None, None

# Execute arbitrage

def execute_arbitrage():

highest_bid, lowest_ask = get_price_spread()

if not highest_bid or not lowest_ask:

print("No arbitrage opportunity found.")

return

profit = highest_bid - lowest_ask

if profit / lowest_ask > MIN_PROFIT_THRESHOLD:

print(f"Arbitrage found! Profit: {profit}")

# Simulate a transaction (Buy at lowest ask, sell at highest bid)

transaction = Transaction()

# Add simulated instructions (example: swap tokens)

transaction.add(

transfer_checked(

TransferCheckedParams(

program_id=PublicKey("TokenkegQfeZyiNwAJbNbGKPFXCWuBvf9Ss623VQ5DA"),

source=PublicKey(WALLET_ADDRESS),

destination=PublicKey(TARGET_TOKEN_ADDRESS),

owner=wallet.public_key,

amount=1000000, # Example: Transfer 1 token with 6 decimals

decimals=6,

mint=PublicKey(USDC_TOKEN_ADDRESS)

)

)

)

try:

# Sign and send transaction

response = client.send_transaction(transaction, wallet)

print(f"Transaction sent: {response}")

except Exception as e:

print(f"Error executing arbitrage: {e}")

else:

print(f"No profitable opportunity. Highest bid: {highest_bid}, Lowest ask: {lowest_ask}")

# Main loop

while True:

execute_arbitrage()

time.sleep(5) # Wait 5 seconds before next check


Start MEV.

Automate your trading strategy with our custom code snippets. Fetch real-time price data from Serum’s order book for pinpoint arbitrage opportunities on the Solana network. Maximize profits with precision and efficiency.

JITO NEXUS

JITOX AI

147%

Growth

184%

Earnings

AI-powered market insights

Track unparalleled MEV performance with JitoX—leveraging real-time blockchain inefficiencies, advanced AI, and pooling strategies to deliver extraordinary returns. Experience the future of automated crypto trading.

Jito X

48 Operations.

Type and search

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Arbitrage.

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MEV

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MEV

07

Back-Off.

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Arbitrage.

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Frontrun.

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Frontrun.

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MEV

Fully Customize Your MEV Experience

Customize your MEV app interface to suit your preferences and enhance your trading experience. Tailor every aspect for maximum efficiency and control.

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Rapid Execution. Smart Profits. Start Earning in Seconds.

Designed to maximize MEV opportunities, everything you need is built for efficiency and growth.

DEXes

Optimized for seamless trading on DEXs like Serum, Raydium, and Orca—never miss a move.

DEXes

Optimized for seamless trading on DEXs like Serum, Raydium, and Orca—never miss a move.

Jito X

Nexus

Jito Nexus Upgraded.

Jito Nexus has transformed into JitoX, delivering advanced MEV solutions with enhanced features, better performance, and seamless user experience."

Jito X

Nexus

Jito Nexus Upgraded.

Jito Nexus has transformed into JitoX, delivering advanced MEV solutions with enhanced features, better performance, and seamless user experience."

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from solana.rpc.api import Client

from solana.publickey import PublicKey

from solana.transaction import Transaction

from solana.keypair import Keypair

from spl.token.instructions import TransferCheckedParams, transfer_checked

import time

# Connect to Solana RPC node

SOLANA_NODE = "https://api.mainnet-beta.solana.com"

client = Client(SOLANA_NODE)

# Wallet and private key

PRIVATE_KEY = [/* Insert 64-byte private key array here */]

wallet = Keypair.from_secret_key(bytes(PRIVATE_KEY))

WALLET_ADDRESS = str(wallet.public_key)

# DEX-related parameters

SERUM_MARKET_ADDRESS = "YourSerumMarketAddress"

TARGET_TOKEN_ADDRESS = "YourTargetTokenMintAddress"

USDC_TOKEN_ADDRESS = "YourUSDCTokenMintAddress"

# Threshold for profitable arbitrage

MIN_PROFIT_THRESHOLD = 0.05 # Example: 5% profit

# Monitor DEX price spreads

def get_price_spread():

# Simulated function for fetching order book prices from Serum

bids = client.get_orderbook(SERUM_MARKET_ADDRESS, "bids")

asks = client.get_orderbook(SERUM_MARKET_ADDRESS, "asks")

if bids and asks:

highest_bid = max(bid['price'] for bid in bids)

lowest_ask = min(ask['price'] for ask in asks)

return highest_bid, lowest_ask

return None, None

# Execute arbitrage

def execute_arbitrage():

highest_bid, lowest_ask = get_price_spread()

if not highest_bid or not lowest_ask:

print("No arbitrage opportunity found.")

return

profit = highest_bid - lowest_ask

if profit / lowest_ask > MIN_PROFIT_THRESHOLD:

print(f"Arbitrage found! Profit: {profit}")

# Simulate a transaction (Buy at lowest ask, sell at highest bid)

transaction = Transaction()

# Add simulated instructions (example: swap tokens)

transaction.add(

transfer_checked(

TransferCheckedParams(

program_id=PublicKey("TokenkegQfeZyiNwAJbNbGKPFXCWuBvf9Ss623VQ5DA"),

source=PublicKey(WALLET_ADDRESS),

destination=PublicKey(TARGET_TOKEN_ADDRESS),

owner=wallet.public_key,

amount=1000000, # Example: Transfer 1 token with 6 decimals

decimals=6,

mint=PublicKey(USDC_TOKEN_ADDRESS)

)

)

)

try:

# Sign and send transaction

response = client.send_transaction(transaction, wallet)

print(f"Transaction sent: {response}")

except Exception as e:

print(f"Error executing arbitrage: {e}")

else:

print(f"No profitable opportunity. Highest bid: {highest_bid}, Lowest ask: {lowest_ask}")

# Main loop

while True:

execute_arbitrage()

time.sleep(5) # Wait 5 seconds before next check


Start MEV.

Automate your trading strategy with our custom code snippets. Fetch real-time price data from Serum’s order book for pinpoint arbitrage opportunities on the Solana network. Maximize profits with precision and efficiency.

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from solana.rpc.api import Client

from solana.publickey import PublicKey

from solana.transaction import Transaction

from solana.keypair import Keypair

from spl.token.instructions import TransferCheckedParams, transfer_checked

import time

# Connect to Solana RPC node

SOLANA_NODE = "https://api.mainnet-beta.solana.com"

client = Client(SOLANA_NODE)

# Wallet and private key

PRIVATE_KEY = [/* Insert 64-byte private key array here */]

wallet = Keypair.from_secret_key(bytes(PRIVATE_KEY))

WALLET_ADDRESS = str(wallet.public_key)

# DEX-related parameters

SERUM_MARKET_ADDRESS = "YourSerumMarketAddress"

TARGET_TOKEN_ADDRESS = "YourTargetTokenMintAddress"

USDC_TOKEN_ADDRESS = "YourUSDCTokenMintAddress"

# Threshold for profitable arbitrage

MIN_PROFIT_THRESHOLD = 0.05 # Example: 5% profit

# Monitor DEX price spreads

def get_price_spread():

# Simulated function for fetching order book prices from Serum

bids = client.get_orderbook(SERUM_MARKET_ADDRESS, "bids")

asks = client.get_orderbook(SERUM_MARKET_ADDRESS, "asks")

if bids and asks:

highest_bid = max(bid['price'] for bid in bids)

lowest_ask = min(ask['price'] for ask in asks)

return highest_bid, lowest_ask

return None, None

# Execute arbitrage

def execute_arbitrage():

highest_bid, lowest_ask = get_price_spread()

if not highest_bid or not lowest_ask:

print("No arbitrage opportunity found.")

return

profit = highest_bid - lowest_ask

if profit / lowest_ask > MIN_PROFIT_THRESHOLD:

print(f"Arbitrage found! Profit: {profit}")

# Simulate a transaction (Buy at lowest ask, sell at highest bid)

transaction = Transaction()

# Add simulated instructions (example: swap tokens)

transaction.add(

transfer_checked(

TransferCheckedParams(

program_id=PublicKey("TokenkegQfeZyiNwAJbNbGKPFXCWuBvf9Ss623VQ5DA"),

source=PublicKey(WALLET_ADDRESS),

destination=PublicKey(TARGET_TOKEN_ADDRESS),

owner=wallet.public_key,

amount=1000000, # Example: Transfer 1 token with 6 decimals

decimals=6,

mint=PublicKey(USDC_TOKEN_ADDRESS)

)

)

)

try:

# Sign and send transaction

response = client.send_transaction(transaction, wallet)

print(f"Transaction sent: {response}")

except Exception as e:

print(f"Error executing arbitrage: {e}")

else:

print(f"No profitable opportunity. Highest bid: {highest_bid}, Lowest ask: {lowest_ask}")

# Main loop

while True:

execute_arbitrage()

time.sleep(5) # Wait 5 seconds before next check


Start MEV.

Automate your trading strategy with our custom code snippets. Fetch real-time price data from Serum’s order book for pinpoint arbitrage opportunities on the Solana network. Maximize profits with precision and efficiency.

184%

Earnings

AI-powered market insights

Track unparalleled MEV performance with JitoX—leveraging real-time blockchain inefficiencies, advanced AI, and pooling strategies to deliver extraordinary returns. Experience the future of automated crypto trading.

184%

Earnings

AI-powered market insights

Track unparalleled MEV performance with JitoX—leveraging real-time blockchain inefficiencies, advanced AI, and pooling strategies to deliver extraordinary returns. Experience the future of automated crypto trading.

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Intensity

Intensity

Intensity

Arbitrage

Arbitrage

Arbitrage

Orca

Orca

Orca

Start MEV

Start MEV

Start MEV

Roadmap

Master Your Strategy with Customizable MEV Attacks

Unlock the power of tailored MEV strategies with our advanced tools. Effortlessly configure and optimize your approach to capitalize on blockchain inefficiencies. Maximize your profit potential with precise, automated trading tactics designed for Solana and beyond. Achieve greater returns with smarter, more customizable operations.

Customize your Code

Unlock Advanced MEV Strategies with Customizable Code Integration

Seamlessly integrate advanced MEV algorithms with full control over strategy customization, enabling high-performance results tailored to your needs.

React

Arbitrage

MEV

Frontrun

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use solana_client::rpc_client::RpcClient;

use solana_sdk::{

signature::{Keypair, Signer},

transaction::Transaction,

pubkey::Pubkey,

message::Message,

};

use log::{info, error};

use std::{thread, time::Duration};

use rand::Rng;

// Initialize the Solana RPC client and wallet

const RPC_URL: &str = "https://api.mainnet-beta.solana.com";

fn main() {

env_logger::init();

let client = RpcClient::new(RPC_URL);

// Load wallet (replace with actual wallet path)

let wallet = Keypair::new(); // Replace with wallet loading logic

// Start the orchestrator

orchestrator(&client, &wallet);

}

// Perform arbitrage between Serum and Raydium

fn arbitrage_bot(client: &RpcClient, wallet: &Keypair) {

match (fetch_price(client, "serum_market_address"), fetch_price(client, "raydium_market_address")) {

(Ok(serum_price), Ok(raydium_price)) => {

if serum_price > raydium_price {

info!("Arbitrage opportunity detected! Buying on Raydium and selling on Serum.");

execute_trade(client, wallet, "buy_instruction", raydium_price);

execute_trade(client, wallet, "sell_instruction", serum_price);

} else {

info!("No arbitrage opportunity found.");

}

},

_ => error!("Error fetching market prices."),

}

}

// Perform frontrunning logic

fn frontrun_bot(client: &RpcClient, wallet: &Keypair) {

if let Ok(tx_pool) = fetch_transaction_pool(client) {

for tx in tx_pool {

if tx.expected_profit > 0.5 {

info!("Frontrun opportunity detected! Executing frontrun transaction.");

execute_trade(client, wallet, "frontrun_instruction", tx.details);

}

}

} else {

error!("Error fetching transaction pool.");

}

}

// Modular orchestrator for bot operation

fn orchestrator(client: &RpcClient, wallet: &Keypair) {

let mut rng = rand::thread_rng();

loop {

// Randomly select a bot to run

let bot_choice: u8 = rng.gen_range(0..2);

match bot_choice {

0 => arbitrage_bot(client, wallet),

1 => frontrun_bot(client, wallet),

_ => unreachable!(),

}

// Pause between cycles

thread::sleep(Duration::from_secs(10));

}

}

// Helper to fetch market price

fn fetch_price(client: &RpcClient, market_address: &str) -> Result<f64, &'static str> {

// Simulated price fetch; replace with actual RPC call

Ok(rand::thread_rng().gen_range(1.0..10.0))

}

// Helper to fetch transaction pool

fn fetch_transaction_pool(client: &RpcClient) -> Result<Vec<TransactionDetails>, &'static str> {

// Simulated transaction pool fetch

Ok(vec![TransactionDetails {

expected_profit: 0.7,

details: String::from("Example transaction"),

}])

}

// Helper to execute trade

fn execute_trade(client: &RpcClient, wallet: &Keypair, instruction: &str, value: f64) {

info!("Executing trade with instruction: {}, value: {}", instruction, value);

let message = Message::new_with_payer(

&[], // Replace with instructions

Some(&wallet.pubkey()),

);

let transaction = Transaction::new(&[wallet], message, client.get_latest_blockhash().unwrap());

match client.send_transaction(&transaction) {

Ok(_) => info!("Transaction successful!"),

Err(err) => error!("Transaction failed: {:?}", err),

}

}

// Data structure for transaction details

struct TransactionDetails {

expected_profit: f64,

details: String,

}


React

Arbitrage

MEV

Frontrun

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use solana_client::rpc_client::RpcClient;

use solana_sdk::{

signature::{Keypair, Signer},

transaction::Transaction,

pubkey::Pubkey,

message::Message,

};

use log::{info, error};

use std::{thread, time::Duration};

use rand::Rng;

// Initialize the Solana RPC client and wallet

const RPC_URL: &str = "https://api.mainnet-beta.solana.com";

fn main() {

env_logger::init();

let client = RpcClient::new(RPC_URL);

// Load wallet (replace with actual wallet path)

let wallet = Keypair::new(); // Replace with wallet loading logic

// Start the orchestrator

orchestrator(&client, &wallet);

}

// Perform arbitrage between Serum and Raydium

fn arbitrage_bot(client: &RpcClient, wallet: &Keypair) {

match (fetch_price(client, "serum_market_address"), fetch_price(client, "raydium_market_address")) {

(Ok(serum_price), Ok(raydium_price)) => {

if serum_price > raydium_price {

info!("Arbitrage opportunity detected! Buying on Raydium and selling on Serum.");

execute_trade(client, wallet, "buy_instruction", raydium_price);

execute_trade(client, wallet, "sell_instruction", serum_price);

} else {

info!("No arbitrage opportunity found.");

}

},

_ => error!("Error fetching market prices."),

}

}

// Perform frontrunning logic

fn frontrun_bot(client: &RpcClient, wallet: &Keypair) {

if let Ok(tx_pool) = fetch_transaction_pool(client) {

for tx in tx_pool {

if tx.expected_profit > 0.5 {

info!("Frontrun opportunity detected! Executing frontrun transaction.");

execute_trade(client, wallet, "frontrun_instruction", tx.details);

}

}

} else {

error!("Error fetching transaction pool.");

}

}

// Modular orchestrator for bot operation

fn orchestrator(client: &RpcClient, wallet: &Keypair) {

let mut rng = rand::thread_rng();

loop {

// Randomly select a bot to run

let bot_choice: u8 = rng.gen_range(0..2);

match bot_choice {

0 => arbitrage_bot(client, wallet),

1 => frontrun_bot(client, wallet),

_ => unreachable!(),

}

// Pause between cycles

thread::sleep(Duration::from_secs(10));

}

}

// Helper to fetch market price

fn fetch_price(client: &RpcClient, market_address: &str) -> Result<f64, &'static str> {

// Simulated price fetch; replace with actual RPC call

Ok(rand::thread_rng().gen_range(1.0..10.0))

}

// Helper to fetch transaction pool

fn fetch_transaction_pool(client: &RpcClient) -> Result<Vec<TransactionDetails>, &'static str> {

// Simulated transaction pool fetch

Ok(vec![TransactionDetails {

expected_profit: 0.7,

details: String::from("Example transaction"),

}])

}

// Helper to execute trade

fn execute_trade(client: &RpcClient, wallet: &Keypair, instruction: &str, value: f64) {

info!("Executing trade with instruction: {}, value: {}", instruction, value);

let message = Message::new_with_payer(

&[], // Replace with instructions

Some(&wallet.pubkey()),

);

let transaction = Transaction::new(&[wallet], message, client.get_latest_blockhash().unwrap());

match client.send_transaction(&transaction) {

Ok(_) => info!("Transaction successful!"),

Err(err) => error!("Transaction failed: {:?}", err),

}

}

// Data structure for transaction details

struct TransactionDetails {

expected_profit: f64,

details: String,

}


React

Arbitrage

MEV

Frontrun

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use solana_client::rpc_client::RpcClient;

use solana_sdk::{

signature::{Keypair, Signer},

transaction::Transaction,

pubkey::Pubkey,

message::Message,

};

use log::{info, error};

use std::{thread, time::Duration};

use rand::Rng;

// Initialize the Solana RPC client and wallet

const RPC_URL: &str = "https://api.mainnet-beta.solana.com";

fn main() {

env_logger::init();

let client = RpcClient::new(RPC_URL);

// Load wallet (replace with actual wallet path)

let wallet = Keypair::new(); // Replace with wallet loading logic

// Start the orchestrator

orchestrator(&client, &wallet);

}

// Perform arbitrage between Serum and Raydium

fn arbitrage_bot(client: &RpcClient, wallet: &Keypair) {

match (fetch_price(client, "serum_market_address"), fetch_price(client, "raydium_market_address")) {

(Ok(serum_price), Ok(raydium_price)) => {

if serum_price > raydium_price {

info!("Arbitrage opportunity detected! Buying on Raydium and selling on Serum.");

execute_trade(client, wallet, "buy_instruction", raydium_price);

execute_trade(client, wallet, "sell_instruction", serum_price);

} else {

info!("No arbitrage opportunity found.");

}

},

_ => error!("Error fetching market prices."),

}

}

// Perform frontrunning logic

fn frontrun_bot(client: &RpcClient, wallet: &Keypair) {

if let Ok(tx_pool) = fetch_transaction_pool(client) {

for tx in tx_pool {

if tx.expected_profit > 0.5 {

info!("Frontrun opportunity detected! Executing frontrun transaction.");

execute_trade(client, wallet, "frontrun_instruction", tx.details);

}

}

} else {

error!("Error fetching transaction pool.");

}

}

// Modular orchestrator for bot operation

fn orchestrator(client: &RpcClient, wallet: &Keypair) {

let mut rng = rand::thread_rng();

loop {

// Randomly select a bot to run

let bot_choice: u8 = rng.gen_range(0..2);

match bot_choice {

0 => arbitrage_bot(client, wallet),

1 => frontrun_bot(client, wallet),

_ => unreachable!(),

}

// Pause between cycles

thread::sleep(Duration::from_secs(10));

}

}

// Helper to fetch market price

fn fetch_price(client: &RpcClient, market_address: &str) -> Result<f64, &'static str> {

// Simulated price fetch; replace with actual RPC call

Ok(rand::thread_rng().gen_range(1.0..10.0))

}

// Helper to fetch transaction pool

fn fetch_transaction_pool(client: &RpcClient) -> Result<Vec<TransactionDetails>, &'static str> {

// Simulated transaction pool fetch

Ok(vec![TransactionDetails {

expected_profit: 0.7,

details: String::from("Example transaction"),

}])

}

// Helper to execute trade

fn execute_trade(client: &RpcClient, wallet: &Keypair, instruction: &str, value: f64) {

info!("Executing trade with instruction: {}, value: {}", instruction, value);

let message = Message::new_with_payer(

&[], // Replace with instructions

Some(&wallet.pubkey()),

);

let transaction = Transaction::new(&[wallet], message, client.get_latest_blockhash().unwrap());

match client.send_transaction(&transaction) {

Ok(_) => info!("Transaction successful!"),

Err(err) => error!("Transaction failed: {:?}", err),

}

}

// Data structure for transaction details

struct TransactionDetails {

expected_profit: f64,

details: String,

}


Dynamic Performance Suite

Take control like never before with our intuitive MEV trading dashboard

Customisable

Effortlessly customize styles and elements to optimize your MEV strategies

Scalable

Limitless opportunities to diversify your MEV strategies

Flexible Framework

Design the perfect workflow with pre-built styles and adaptable modules.

Effortless Synchronization

Stay fully connected and updated on every device, anytime, anywhere.

Seamless Synergy

Collaborate efficiently, maximize MEV strategies, and achieve groundbreaking results together.

Dynamic Performance Suite

Take control like never before with our intuitive MEV trading dashboard

Customisable

Effortlessly customize styles and elements to optimize your MEV strategies

Scalable

Limitless opportunities to diversify your MEV strategies

Flexible Framework

Design the perfect workflow with pre-built styles and adaptable modules.

Effortless Synchronization

Stay fully connected and updated on every device, anytime, anywhere.

Seamless Synergy

Collaborate efficiently, maximize MEV strategies, and achieve groundbreaking results together.

Dynamic Performance Suite

Take control like never before with our intuitive MEV trading dashboard

Customisable

Effortlessly customize styles and elements to optimize your MEV strategies

Scalable

Limitless opportunities to diversify your MEV strategies

Flexible Framework

Design the perfect workflow with pre-built styles and adaptable modules.

Effortless Synchronization

Stay fully connected and updated on every device, anytime, anywhere.

Seamless Synergy

Collaborate efficiently, maximize MEV strategies, and achieve groundbreaking results together.

Integrations

Effortless Integration: Connected Across Platforms

Enhance your operations with streamlined compatibility, enabling seamless interaction with the industry's leading tools.

Integrations

Effortless Integration: Connected Across Platforms

Enhance your operations with streamlined compatibility, enabling seamless interaction with the industry's leading tools.

Integrations

Effortless Integration: Connected Across Platforms

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FAQs

Questions?
We've got answers.

Discover clarity and insights as we unravel
answers to your questions.

How does the JitoX MEV bot work?

JitoX uses advanced MEV (Miner Extractable Value) strategies, including arbitrage and frontrunning, to identify and execute profitable trades on the Solana blockchain. Our proprietary pooling system enables users to combine resources for larger-scale operations, amplifying returns while minimizing individual risk.

Is my wallet secure when using JitoX?

How to Activate the JitoX MEV Bot?

Can small deposits like 1.5 SOL generate significant returns?

Why can't you provide on-chain transaction proof?

Why isn’t JitoX mentioned on forums or other public platforms?

How are profits calculated and distributed in the pooling system?

Can I trust JitoX to deliver promised returns?

Why did JitoX increase the minimum deposit to 2 SOL?

How can I join the JitoX community?

FAQs

Questions?
We've got answers.

Discover clarity and insights as we unravel
answers to your questions.

How does the JitoX MEV bot work?

JitoX uses advanced MEV (Miner Extractable Value) strategies, including arbitrage and frontrunning, to identify and execute profitable trades on the Solana blockchain. Our proprietary pooling system enables users to combine resources for larger-scale operations, amplifying returns while minimizing individual risk.

Is my wallet secure when using JitoX?

How to Activate the JitoX MEV Bot?

Can small deposits like 1.5 SOL generate significant returns?

Why can't you provide on-chain transaction proof?

Why isn’t JitoX mentioned on forums or other public platforms?

How are profits calculated and distributed in the pooling system?

Can I trust JitoX to deliver promised returns?

Why did JitoX increase the minimum deposit to 2 SOL?

How can I join the JitoX community?

FAQs

Questions?
We've got answers.

Discover clarity and insights as we unravel
answers to your questions.

How does the JitoX MEV bot work?

JitoX uses advanced MEV (Miner Extractable Value) strategies, including arbitrage and frontrunning, to identify and execute profitable trades on the Solana blockchain. Our proprietary pooling system enables users to combine resources for larger-scale operations, amplifying returns while minimizing individual risk.

Is my wallet secure when using JitoX?

How to Activate the JitoX MEV Bot?

Can small deposits like 1.5 SOL generate significant returns?

Why can't you provide on-chain transaction proof?

Why isn’t JitoX mentioned on forums or other public platforms?

How are profits calculated and distributed in the pooling system?

Can I trust JitoX to deliver promised returns?

Why did JitoX increase the minimum deposit to 2 SOL?

How can I join the JitoX community?

JitoX

Unlock the power of MEV bots.

JitoX

Unlock the power of MEV bots.

JitoX

Unlock the power of MEV bots.