Calculate how much you'll pay to send Bitcoin. Unlike traditional payments, Bitcoin fees are based on data size, not the amount you're sending!
Estimate fees based on the complexity of your Bitcoin transaction, categorized as simple, standard, or complex.
Analyze current network traffic to determine potential fees for differing transaction confirmation speeds.
Predict future Bitcoin fee rates to help users decide the optimal time to send transactions.
Provide real-time updates on Bitcoin network metrics like mempool size and block height to inform fee calculations.
Estimate fees based on transaction size, current network traffic, and desired confirmation speed.
Gives real-time metrics on Bitcoin network congestion and transaction confirmation times.
Teaches users how to use Segregated Witness (SegWit) addresses to reduce their Bitcoin transaction sizes by 30-40%, leading to lower fees.
Guides on combining multiple payments into a single transaction, enabling significant fee savings for businesses.
Explains how to utilize the Lightning Network for near-instant transactions with minimal fees, ideal for micropayments.
Provides strategies for businesses to manage Unspent Transaction Outputs (UTXOs) efficiently to minimize fees.
Provides historical data on transaction fees over various time periods, allowing users to analyze trends.
Recommends optimal times for transactions based on fee trends, typically showing lower fees on weekends and during specific hours.
Uses AI to predict Bitcoin transaction fees for the next 24 hours, weekend, and week, based on historical data, current mempool status, and network patterns.
Analyzes real-time mempool data to predict how long a Bitcoin transaction will take to confirm based on network conditions and chosen fee rates.
Allows users to boost a stuck transaction by replacing the original with a version with a higher fee if supported by their wallet.
Speeds up stuck transactions by creating a new transaction with higher fees to incentivize miners to confirm a parent transaction.
Enables direct transactions between parties without a trusted third party by using a distributed network of nodes to agree on transaction history.
Uses a decentralized timestamp server and proof-of-work to prevent the same Bitcoin from being spent more than once.
Secures the network by requiring computational work, making it difficult for attackers to alter transaction history without controlling the majority of CPU power.
Encourages nodes to participate honestly by rewarding them with newly issued Bitcoins or transaction fees for securing the network.
Allows users to verify transactions without running a full network node, using only a copy of the block headers and the longest proof-of-work chain.