Cryptosnif / Compare

Ethereum vs Solana

Ethereum vs Solana. Evidence, limits and the next questions to examine.

Documentation review · Reviewed 2026-10-04 · editorial-2

The source review explains documented mechanisms. Independent network checks remain pending.

Promise and Scope

This comparison examines the documented execution fee mechanisms for Ethereum and Solana. The goal is to identify how fees are calculated, who receives them, and what evidence is missing. This analysis does not declare a winner based on speed, cost, or uptime. It also avoids generalized safety rankings. The focus remains strictly on the technical specifications provided in the source reports.

Ethereum Fee Mechanisms

Ethereum documentation defines gas as a measure of computational effort. Fees are paid in ETH. The base fee is burned, meaning it is removed from circulation, while a priority fee goes to the validator. A failed executed transaction can still consume gas.

These mechanisms do not establish net supply change, current user costs, adoption, or a holder’s income.

The pinned EIP-1559 specification describes execution gas fees further. The priority fee is capped at maxFee minus baseFee. Unused gas is refunded at the effective gas price. For ongoing blocks, the target is half the parent gas limit. Integer base-fee adjustment uses denominator 8 with a minimum upward increment of 1. Initial fork handling differs from this standard. This historical specification uses miner terminology, whereas current validator roles are described separately by Ethereum proof-of-stake documentation. Blob fees, issuance, and current network observations are outside this calculation.

Solana Fee Mechanisms

Solana documentation describes fees paid in SOL with a base fee and an optional prioritization fee. The base fee is divided 50% burned and 50% to the validator. The prioritization fee goes entirely to the validator. These documented rules do not measure live costs, utilization, or net issuance.

Transactions contain instructions, which are the individual operations that programs execute. Execution is atomic, meaning all instructions succeed or their state changes revert. This technical property does not prove independent audits of applications, absence of bugs, or present network reliability.

Agave v4.3.0 computes the ordinary base-fee burn with integer arithmetic at 50%. It adds the unburned base portion and the entire priority fee to a collector deposit, then attempts that deposit. A failed deposit is also burned. Depending on a feature flag, the recipient is the leader identity or a permitted collector associated with the leader's vote account. This reviewed client version does not establish current feature activation, deployed versions, live transaction cost, total issuance, or beneficial control.

Hypothetical Numerical Examples

To illustrate the mechanics, we use original Cryptosnif arithmetic. All inputs below are hypothetical and do not represent live network data.

For Ethereum, assume gas used 21000, gas limit 30000, base fee 30 gwei, max fee 40 gwei, and max priority fee 2 gwei. This results in a total of 672000000000000 wei (0.000672 ETH). The burned amount is 630000000000000 wei (0.000630 ETH), and the priority fee is 42000000000000 wei (0.000042 ETH). The refund for 9000 unused gas is 288000000000000 wei (0.000288 ETH), excluding other refund mechanisms. Wei is the smallest ETH denomination; 1 gwei groups 1000000000 wei, and 1 ETH equals 10^18 wei. At a parent base fee of 30 gwei, parent gas limit 30000000, and target 15000000, the next base fee is 33.75 gwei after a full parent block and 26.25 gwei after an empty one.

Lamports are the integer units used for SOL fee accounting. A collector is the account intended to receive the unburned fee portion. For Solana, assume a hypothetical base fee of 5000 lamports and a priority fee of 1000 lamports with an accepted deposit. The total is 6000 lamports. The burned amount is 2500 lamports, and the collector receives 3500 lamports. If the collector deposit fails, all 6000 lamports are burned. With an odd base fee of 5001 lamports and priority 1000 lamports, the accepted-deposit burn is floor(5001*50/100)=2500 lamports, and the collector receives 3501 lamports.

These examples show different fee inputs and cannot establish a cost winner.

Missing Evidence and Unknowns

For both assets, current ownership concentration, privileged control powers, independently measured usage, incident remediation, and locally executable liquidity remain unverified in this pilot. The evidence coverage is insufficient for an overall score. A documented mechanism alone cannot establish current resilience or expected returns. Reproducible network observations, current control maps, documented supply rules, and independent incident records would allow the pending checks to be evaluated. Without these, any claim about relative performance or safety remains speculative.

Verdict and Future Comparison

The verdict for both Ethereum and Solana is that they have documented promises but require independent verification. No score can be assigned due to missing essential criteria such as identity, supply, and control. To perform a fair future comparison, analysts must wait for reproducible network observations that confirm live deployment status. They should also seek independent measurements of usage and control structures. Until then, comparisons should remain limited to the static code definitions and hypothetical calculations presented here. Different fee inputs in isolation do not determine economic efficiency or user experience.

Sources behind this analysis

Ethereum documentation: gas

Ethereum documentation defines gas as a measure of computational effort. Fees are paid in ETH. The base fee is burned and a priority fee goes to the validator. A failed executed transaction can still consume gas. These mechanisms do not establish net supply change, current user costs, adoption or a holder’s income.