For a like-for-like transfer quoted at the same moment, Solana usually has the lowest protocol base fee. Its base charge is 5,000 lamports per signature (about $0.0007 in Solana’s payment-guide illustration), before any optional prioritization fee. Polygon PoS and Base are often inexpensive alternatives. Ethereum mainnet can be cheap when gas demand is low, but its price is more exposed to congestion and token-transfer gas use.
That is a comparison method, not a permanent league table. The cheapest end-to-end route depends on the same asset and transaction type, current SOL, POL and ETH prices, live gas or compute fees, the recipient’s supported network, and any exchange withdrawal or bridge charge. A network with a tiny on-chain fee can still be the more expensive choice if it requires an extra conversion or bridge.
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Quick answer: the likely order, with important qualifications
For a simple native-asset transfer, Solana’s protocol fee is generally the smallest of the four networks discussed here. Polygon PoS and Base are commonly low-cost because they execute transactions away from Ethereum mainnet’s full data and execution environment. Ethereum mainnet has no fixed dollar price: the fee rises and falls with the gas market, and an ERC-20 transfer normally consumes substantially more gas than sending ETH.
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|---|---|---|---|
| Solana | 5,000 lamports per signature plus an optional prioritization fee based on compute-unit price and limit | The base fee is 5,000 lamports per signature; Solana’s payment guide illustrates approximately $0.0007 | A guaranteed current dollar cost for every transaction or token |
| Ethereum mainnet | Gas used multiplied by the base fee plus priority fee, paid in ETH | A basic ETH transfer uses 21,000 gas; an Ethereum documentation example lists about 65,000 gas for an ERC-20 transfer | A stable current price, because gas demand and ETH’s exchange rate change |
| Base | Execution gas plus Ethereum data-publication (L1) cost, paid through the Base transaction | Base promotes “sub-cent global payments” and exposes a live gas price through its RPC | That every transfer will remain below one cent |
| Polygon PoS | Dynamic Polygon gas price and gas used, paid in POL | Polygon documentation requires POL for Polygon mainnet gas | A fixed POL or dollar amount for a future transaction |
Use the table to identify what to quote, not to skip the quote. Fees are attached to individual transactions, not permanently to a chain’s name.
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Why “cheapest network” is not one universal number
The asset and transaction must match
Comparing a SOL transfer with an ERC-20 stablecoin transfer answers two different questions. A native coin transfer usually has a simpler instruction set. A token transfer invokes a token contract or program, uses different compute or gas resources, and can require a different balance for fees. Compare USDC on Solana with USDC on Base, Polygon PoS or Ethereum, or compare native SOL with native ETH, rather than mixing categories.
The same network can produce different quotes
Two transfers on one chain may have different costs because they use different gas or compute units, include different instructions, or are submitted under different congestion conditions. Ethereum’s fee is particularly sensitive to the live base fee and the sender’s priority fee. Solana’s base fee is predictable, but a sender can add a prioritization fee when fast processing is important. Base and Polygon also expose dynamic prices rather than a permanent retail tariff.
The dollar ranking moves with token prices
Protocol fees are denominated in the network’s gas asset: SOL, ETH or POL. A 5,000-lamport charge does not have a constant dollar value if SOL changes price. The same applies to an ETH gas payment or POL used on Polygon PoS. Quote the fee in the native asset and convert it using the same exchange-rate timestamp for every network.
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If funds start on an exchange and end in a wallet on another network, the total may include an exchange withdrawal fee, a bridge transaction, a destination-side gas balance, and a swap or conversion spread. Those extras can exceed the protocol fee. A chain can therefore be cheapest for a wallet-to-wallet transfer but not cheapest for an exchange-to-wallet route.
How each network calculates a transfer fee
Solana: a small fixed base fee, with optional prioritization
Solana’s documentation states that every Solana transaction requires a fee paid in SOL. The base fee is 5,000 lamports per signature. One SOL contains 1 billion lamports, so the base charge is 0.000005 SOL per signature. Solana’s payment guide illustrates that charge at approximately $0.0007; that dollar figure is an example tied to the SOL price used in the guide, not a live guarantee.
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A transaction can also include a prioritization fee. The fee is calculated from a compute-unit price and a compute-unit limit. A congested application, a deliberately high priority setting, or a more complex instruction set can therefore make the final amount higher than the base 5,000-lamport figure. When comparing a stablecoin transfer, obtain the wallet’s actual quote rather than assuming every SPL-token instruction costs exactly the native transfer amount.
- Fee asset: SOL.
- Base-fee reference: 5,000 lamports per signature.
- Variable component: optional prioritization fee tied to compute units.
- Operational requirement: keep enough SOL in the sending account to pay the network fee.
Ethereum mainnet: gas used times the live gas price
Ethereum defines the fee as gas used multiplied by the base fee plus the priority fee. The base fee is set by the protocol and changes with network demand; the priority fee is the tip offered to validators. The sender pays in ETH. Ethereum documentation describes gas fees as the total cost of the actions in a transaction.
A simple ETH transfer uses 21,000 gas. An ERC-20 transfer performs contract execution and therefore consumes more: an Ethereum documentation example lists about 65,000 gas. The exact amount depends on the token contract and execution path, so 65,000 is an illustrative documentation figure, not a promise for every token.
For a live quote, multiply the wallet’s estimated gas units by the current total price per gas unit. If either the gas estimate or the gas market rises, the dollar cost rises; if ETH’s market price rises, the same ETH-denominated fee also converts to more dollars.
- Fee asset: ETH.
- Native transfer reference: 21,000 gas.
- Token-transfer reference: approximately 65,000 gas in the cited Ethereum example.
- Main risk: congestion can make mainnet materially more expensive than an L2 or alternative chain.
Base: an Ethereum layer 2 with execution and data costs
Base is an Ethereum Layer 2 marketed for “sub-cent global payments.” Its RPC provides the current gas price, but the final fee is not determined by that number alone. A Base transaction pays for execution on Base and for publishing the necessary data to Ethereum. The amount of data, the transaction’s execution, and the current L1 data cost all affect the final quote.
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Base can therefore be an economical destination for an Ethereum-compatible token transfer, especially when the recipient, exchange or application already supports Base. Do not treat the “sub-cent” description as a guaranteed ceiling. Ask the wallet or application for the complete fee immediately before signing and check whether a separate withdrawal or bridge is required to get assets onto Base.
- Fee asset: ETH on Base.
- Variable components: Base execution gas and Ethereum data-publication cost.
- Useful comparison: quote the same token transfer on Base and on Polygon or Solana, not a Base swap against a simple native transfer elsewhere.
Polygon PoS: low-cost execution paid in POL
Polygon’s current documentation instructs users to hold POL to cover Polygon mainnet gas. The exact POL amount is dynamic, so a fixed dollar claim would be misleading. Your wallet estimates gas from the transaction and the current Polygon gas market; the POL/USD conversion then changes with the token’s market price.
Polygon PoS is often attractive for routine transfers when the exchange and recipient support Polygon deposits and withdrawals directly. That advantage can disappear if you must bridge from another network or buy POL separately to pay for the transaction. Keep a small POL balance on the sending address before moving a token, rather than assuming the token balance itself can pay gas.
- Fee asset: POL.
- Variable components: gas used and current Polygon gas price.
- Operational requirement: POL must be available on Polygon PoS for the transaction that spends the token.
Like-for-like comparisons that actually answer the question
| Comparison | Fair setup | Why it matters |
|---|---|---|
| Native coin transfer | SOL to SOL, ETH to ETH, or POL to POL, quoted at the same time | Shows the network’s basic payment path without contract execution differences |
| Stablecoin transfer | The same token, such as the same USDC representation, on each supported network | Token programs and contracts consume different compute or gas amounts |
| Exchange withdrawal | Compare the exchange’s displayed withdrawal charge and delivery network | The exchange may charge a fixed fee that is larger than the protocol fee |
| Cross-network move | Include bridge, source transaction, destination gas and any swap or spread | A bridge adds at least one additional transaction and can reverse the on-chain saving |
Also verify that “the same token” really means the same asset representation. A token with the same ticker may exist as separate contracts on Ethereum, Base, Polygon PoS and Solana. The recipient must support the exact network and token contract; sending to an unsupported network can make recovery difficult or impossible.
A five-minute method for finding the cheapest route today
- Define the transfer. Write down the asset, amount, source location, destination address, and whether the destination needs a native coin or a token. Decide whether this is a wallet-to-wallet payment, an exchange withdrawal, or a cross-network move.
- Check destination support first. Confirm the recipient or exchange explicitly lists the network you plan to use. A low fee is irrelevant if the deposit is not credited on that chain.
- Request a live quote on each eligible network. In the sending wallet, select the same asset and amount, choose the network, and record the complete fee in the network’s native unit. For Ethereum and Base, note gas and any L1 data component shown; for Solana, note the base and prioritization portions; for Polygon, note the POL estimate.
- Normalize to one currency. Convert each fee using token prices captured at the same time. Preserve the original native-asset amount in your notes so a later price move is not mistaken for a fee change.
- Add non-protocol charges. Include the exchange’s withdrawal fee, bridge fee, source and destination transactions, a required POL or SOL top-up, and any conversion spread. If a service quotes a fee in the asset being withdrawn, include that amount rather than substituting a generic network estimate.
- Compare delivered value. Subtract all charges from the amount the recipient will actually receive. A route with a slightly higher protocol fee may deliver more if it avoids a bridge or forced swap.
- Send a small test when the route is unfamiliar. Test the network, token representation and destination address with a small amount first. A test transaction is an additional fee, but it can prevent a larger irreversible mistake.
- Leave a gas balance for follow-up actions. Keep SOL, ETH on Base, POL or ETH on Ethereum as appropriate. A recipient may need the native asset later to move or swap the token.
When each network is the practical choice
Choose Solana when both sides support the same Solana asset
Solana is the leading fee candidate for a straightforward transfer because its base fee is only 5,000 lamports per signature. It is especially compelling for frequent small payments where a fixed fee measured in fractions of a cent matters. Check the prioritization fee and confirm the recipient accepts the SPL version of the asset. The low base fee does not remove exchange withdrawal charges or the need for a small SOL balance.
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Choose Polygon PoS when direct POL-funded transfers are supported
Polygon can be economical for EVM-compatible tokens when the sender and recipient already operate on Polygon PoS. Its fee is paid in POL and changes with the live gas market. Direct support at the exchange or wallet is more important than a historical headline number: a direct Polygon withdrawal can beat a theoretically cheaper route that requires bridging.
Choose Base when the Ethereum ecosystem is required at lower L2 cost
Base is useful when the recipient, application or exchange is built around Ethereum-compatible assets but supports Base deposits directly. Its total charge includes both Base execution and Ethereum data-publication costs. A direct Base withdrawal avoids a separate bridge; a route that starts on Ethereum mainnet and then bridges to Base has additional steps and fees.
Choose Ethereum mainnet when compatibility or settlement outweighs fee minimization
Ethereum mainnet remains the compatibility choice for services that do not support an L2 or alternative network, and for users who specifically require mainnet settlement. It can be reasonably priced during low-demand periods, but the 21,000-gas native-transfer reference and the higher token-transfer gas requirement mean you should obtain a live estimate before sending. For a small payment, a fixed exchange withdrawal charge may matter more than the underlying gas quote.
Historical numbers: useful context, not a current price list
A January 2026 table attributed to Token Terminal reported three-year average transaction fees of $0.0146 for Base and $0.0128 for Polygon. These are historical averages, not quotes for a transaction today. They combine past network conditions and should not be used to promise that either chain will cost that amount at send time. No comparable source figure in the available material guarantees a current dollar fee for all four networks.
| Figure | Date or condition | Proper use | Improper use |
|---|---|---|---|
| Base: $0.0146 | Three-year average reported in a January 2026 Token Terminal-attributed table | Historical context for Base’s typical scale over that period | A guaranteed fee for your next Base transfer |
| Polygon: $0.0128 | Three-year average reported in the same January 2026 table | Historical context for Polygon’s typical scale over that period | A current Polygon quote or a permanent ranking |
| Solana: approximately $0.0007 | Illustration in Solana’s payment guide for a 5,000-lamport base transaction | An example of the base fee’s small magnitude | A fixed dollar fee regardless of SOL’s price or prioritization |
Bridge and exchange costs that can erase the saving
What a bridge adds
A bridge moves an asset between networks and normally requires transactions on one or both sides. Polygon’s official bridge instructions require POL for the Polygon-side gas fee before funds arrive on Ethereum. That requirement illustrates the broader issue: the destination-side native asset may be needed before or during the move. Add the bridge’s displayed charge, source-network gas, destination-network gas, and any waiting or liquidity cost to the comparison.
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Why an exchange withdrawal can dominate
Exchanges often publish their own withdrawal charge. It may be fixed, periodically adjusted, or denominated in the asset being withdrawn. If that charge is $1 and the underlying Solana transaction is a fraction of a cent, optimizing among four protocols will not materially change the total. Compare the amount that leaves the exchange with the amount that arrives, and check whether the exchange offers each network directly.
When a bridge is still reasonable
Bridging can make sense when the destination application, liquidity or recipient requires a particular network and no direct withdrawal exists. Treat it as a separate multi-step transaction, not as evidence that the destination chain itself is expensive. If the bridge quote is larger than the original transfer, the cheapest on-chain network is no longer the cheapest route for your use case.
Common mistakes and how to avoid them
- Using a headline fee as a guarantee: replace historical averages and marketing language with the wallet’s current quote.
- Comparing different transaction types: compare native-to-native or the same token-to-token operation.
- Ignoring the gas token: hold SOL for Solana, POL for Polygon PoS, and ETH for Ethereum or Base as required by the transaction.
- Sending a token to the wrong network: verify the recipient’s network and token representation before signing.
- Forgetting priority settings: review Solana prioritization fees and Ethereum priority fees instead of accepting an unnecessarily aggressive setting.
- Leaving out L1 data cost on Base: use the complete Base estimate, not only the displayed execution gas price.
- Calling a bridge free because its interface shows no separate fee: include every source and destination transaction and any spread.
- Confusing a low protocol fee with low total cost: add exchange withdrawals, swaps, bridge charges and the value of any required test transfer.
- Sending the entire balance: reserve enough native currency for the transaction and possible recovery or follow-up actions.
A decision checklist before you press Send
- Is the asset and its network representation supported by the recipient?
- Are you comparing identical amounts and transaction types?
- Did you capture live quotes at the same time?
- Did you record base, priority, compute, gas and L1-data components where shown?
- Did you convert SOL, ETH and POL fees using current, comparable exchange rates?
- Did you include exchange withdrawal, bridge, swap and spread charges?
- Do you have the correct native gas token in the sending wallet?
- Would a small test transfer reduce address or network risk?
- After all charges, which route delivers the most value to the recipient?
The practical verdict
For a direct, like-for-like transfer with no bridge, Solana is usually the fee leader because its 5,000-lamport base charge is exceptionally small. Polygon PoS and Base are often the best low-cost EVM-compatible options when they are supported directly. Ethereum mainnet is the least predictable of the four because gas demand and token-transfer execution can raise the bill, although it can be acceptable when demand is low or mainnet compatibility is essential.
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The reliable answer for any specific payment comes from a same-time, same-asset quote that includes the full route. Check the recipient first, compare protocol fees in native units and dollars, then add withdrawals, bridges and conversions. That process—not a permanent ranking—identifies the cheapest network for the transfer you are actually making.
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