A network of nodes validates blockchain transactions. The nodes earn crypto as compensation, which gives them an incentive to process these transactions. Costs rise as users compete to achieve faster processing speeds when more transactions than normal occur on a blockchain. This sometimes happens when the price of a particular cryptocurrency increases. During these periods, more users tend to move their assets, leading to more transactions and higher fees.
Likewise, increased demand for a given token leads to correspondingly higher costs. This happens when there is a lot of hype surrounding a particular project. Bitcoin transaction fees were relatively high when the Bitcoin-based protocol BRC-20 became popular in the spring of 2023.
User options to avoid high costs
An obvious option is to wait until costs drop before sending cryptocurrency, but this isn’t feasible if you want to send it quickly. Rates may also be slightly lower during quiet hours in leading markets, such as at night in the US.
If a user sends crypto to another exchange, they can exchange it for assets like Ripple or Litecoin, whose fees are typically lower. They then trade it back to their favorite asset on the other exchange. However, buying and selling fees are still charged.
A transaction simulation is an excellent way to predict costs, keep crypto beginners informed, and avoid mistakes. The simulation feature of Ambire Wallet, an open-source smart wallet that uses account abstraction, informs users of the effect of a transaction on their balance before they unsubscribe from it. In addition to offering all the features and functions available through widely adopted solutions such as Metamask, Ambire offers account recovery, gas fee prepayment to avoid spikes, and transaction batching. It’s cheaper to send one large transaction instead of a few small ones. Blockchain activity determines the cost, not the amount of crypto you send, so you pay the same fee for a small and a large transaction value. Ambire Wallet users combine transactions and broadcast them together, saving both time and money.
The anatomy of transaction simulation
Ambire significantly alleviates the complexity of transaction simulation. The complicated process starts with defining input parameters and ends with reviewing transaction results. There are several critical phases, each contributing to the reliability and accuracy of the simulation results.
A set of input parameters defines the behavior and characteristics of the transaction. These parameters include sender address, transaction type, recipient address, gas price and limit, and other relevant attributes. Users adjust the simulation to accurately represent the objectives and scenarios, but not without carefully defining these parameters. Once these are defined, validation procedures are performed to ensure the integrity and feasibility of the transaction. Validation involves verifying the authenticity of the address and evaluating the parameters’ compliance with preset criteria.
After validation, the simulation prepares the blockchain environment based on the current data and system configuration. This includes retrieving relevant information, including but not limited to contract codes, account balances and gas, which measures the computing resources consumed while the simulated transaction is executed. Gas estimation involves evaluating the consumption of individual transaction elements and operations. Memory usage, opcode costs, and storage access are taken into account to accurately estimate the total amount of gas required to execute the transaction. This determines the gas fees associated with the transaction.
Finally, the transaction simulation executes the operations entered in the input parameters. This phase involves simulating money transfers, executing smart contract functions, and updating contract stores according to predetermined transaction logic. The simulation tracks the gas consumption of each operation during execution and monitors the use of computer resources throughout the process. Tracking gas usage makes it possible to assess how efficient transactions are and identify potential issues that could impact performance.
The simulation ends with an evaluation of the transaction results, in particular the costs and integrity of the transaction. The evaluation includes verifying the completion of transaction operations, checking for errors, and investigating resulting changes to the blockchain state.
Simulations allow users to measure the effectiveness of the entire process and gain valuable insights into the impact of the transaction on their finances, investments and the entire blockchain.
Transaction simulation reduces risk
Even beginners know that you cannot reverse a blockchain transaction. Once a user signs a transaction, they cannot change or undo it. Simulation allows them to predict potential problems or consequences, significantly reducing the risk of unrecoverable errors. You can simulate swaps, trades or liquidity provisions in DeFi interactions to ensure that they do not lead to unexpected losses due to sub-optimal trade execution or slippage.
Ethereum transactions can incur significant gas fees depending on their complexity and the degree of network congestion at any given time. Simulating transactions estimates the gas required, preventing users from underpaying, which can lead to stuck or failed transactions. Paying too much is also undesirable, because excessive gas rates needlessly increase transaction costs. By providing accurate gas estimates, simulation makes it possible to set the correct gas limits and keep costs under control.
The outcomes of blockchain transactions are not immediately clear, especially if the transactions involve complex DeFi protocols or smart contracts. When voting in DAOs or implementing complex financial strategies, simulation helps users understand the implications of their decisions, leading to economically viable and safe choices. Ultimately, simulation clarifies the outcome of the execution of a transaction so that the parties involved are fully informed.
