Author: imToken
If you are active on-chain, you have probably encountered these awkward situations:
You receive a stablecoin in a new address, but a pop-up appears when trying to transfer it out because you lack ETH for gas; you get stuck trying to swap a token on a DEX; you withdraw USDC from an exchange only to realize you didn't prepare gas....
In all these cases, you are forced to first find a fiat on-ramp elsewhere or ask around for someone to send you some "water". This is arguably one of the classic moments in the Crypto world that deters newcomers.
Recently, Vitalik Buterin mentioned progress on EIP-8141 (Frame Transactions), once again bringing new possibilities to the forefront: In the future, you could transfer funds directly from your wallet without holding ETH. Gas could be deducted directly from your USDC, and even some applications might cover the gas for you to attract users.
Once this news spread, it quickly escalated into a frightening exaggerated claim: "If you don't even need ETH to use Ethereum in the future, then what value does ETH have?"
The answer is not that simple.
What asset users pay fees with and what asset the Ethereum protocol ultimately settles fees with are two entirely different things.
1. What Does Paying Gas Without ETH Really Mean?
Let's start with a regular Ethereum transaction today.
For example, Frank has 1000 USDC in his wallet. He wants to send 100 USDC to a friend, but if his wallet doesn't have ETH, the transaction cannot be sent.
The reason is simple: the logic of current standard Ethereum accounts is quite rigid. The person initiating the transaction is also the one responsible for paying the network gas—Frank signs, Frank initiates the transaction, and Frank's ETH balance pays the gas. These three actions are essentially bound together.
What EIP-8141 aims to do is separate them.
According to the current design, a Frame Transaction can be split into multiple different "Frames", each responsible for verifying the transaction, confirming who pays the gas, and actually executing the user's operation.
Thus, in the future, when Frank makes a transfer, it could work like this: Frank still signs, proving "I indeed intend to send these 100 USDC," but another Paymaster or account is responsible for providing the ETH to pay the gas to the Ethereum network on Frank's behalf. Frank then pays this Paymaster a small amount in USDC as a fee.
From Frank's perspective, all he might see is sending 100 USDC with a network fee of 0.1 USDC. Throughout the entire process, he doesn't even need to know what the ETH gas price is or prepare ETH in advance.
But from the perspective of the Ethereum protocol, things haven't turned into "Ethereum now accepts USDC as gas." It's just that someone pays the gas with ETH for Frank in the background and then settles with Frank using USDC.
The ERC-20 payment example given in the official EIP-8141 documentation follows a similar structure, where a Sponsor is responsible for approving and covering the gas, and the user can transfer ERC-20 Tokens to the Sponsor as payment.
It's easier to understand if we draw an analogy to real-life consumption.
When we use a Chinese Yuan credit card for purchases in Japan, what the user perceives is "Yuan deducted," but what the merchant receives might be Yen. This doesn't mean Japan's underlying settlement currency has suddenly become Yuan. The front-end payment asset and the back-end settlement asset can inherently be different things.
What EIP-8141 does is essentially a similar kind of abstraction. In short, users no longer need to hold ETH personally. Another account can pay the ETH gas on their behalf, and then users can settle the fee using assets like USDC.
Although the difference seems like just a few words, their implications for ETH are completely different.
2. Why Does Ethereum Want to "Hide" Gas?
In fact, the idea of "not needing to prepare ETH yourself" is not entirely new.
Account Abstraction and Paymasters introduced by ERC-4337 already allow smart accounts to implement Gas Sponsorship. Applications can pay transaction fees for users, or allow users to pay fees using stablecoins.
However, while ERC-4337 can do these things, it primarily adds an infrastructure layer outside the core protocol—including UserOperations, Bundlers, EntryPoints, and Paymasters. EIP-8141, on the other hand, attempts to more natively embed such capabilities into the Ethereum transaction structure itself.
Ultimately, the core goal is to solve a problem that should have been addressed long ago: Why should ordinary users have to understand what Gas is?
In real life, when you transfer 200 RMB to a friend on WeChat, WeChat certainly won't pop up a window telling you to "first go to another platform to buy 2 RMB worth of settlement tokens."
But Crypto has been tormenting users exactly like this in the past.
On Ethereum, you need ETH; on Solana, you need SOL; on BNB Chain, you need BNB. Even switching to a new L2, your first instinct is to check if you have the starting funds in your wallet. Veterans might handle it by bridging assets in a couple of minutes, but for outsiders, this is a chasm wide enough to make them close the webpage and leave.
Besides hiding Gas, Frame Transactions can also help solve several persistent problems.
For example, when trading a new token on a DEX today, you first need to click "Approve" for authorization and then click "Swap"; your wallet pops up for confirmation twice. If the subsequent Swap fails, the earlier authorization still sits on the chain, creating a long-term security risk.
However, with Frames, these two actions could be bundled into a single atomic batch: if the Swap fails, the preceding authorization automatically rolls back as well, leaving everything clean.
This opens up a larger realm of possibilities: who authorizes, who executes, who pays, and what verification method is used can all be separated and recombined in the future.
3. So, Is This Bullish or Bearish for ETH?
This is also where the discussion most easily veers towards two extremes.
One argument is, "If ETH is no longer needed to pay Gas in the future, ETH has no value." The other argument is, "Lowering the user barrier leads to a surge in transaction volume, so it's super bullish for ETH."
Regarding major architectural reforms that affect the user experience of the underlying protocol, it's still difficult to draw definitive conclusions. However, one thing is certain: EIP-8141 has not eliminated ETH's role as the underlying Gas and fee settlement asset for Ethereum.
Users might not perceive ETH, but the Paymasters, applications, or other accounts responsible for paying on their behalf still need the ability to cover network fees priced in ETH. The existing EIP-1559 fee market is also not replaced by stablecoins due to Frames.
What changes is the location of ETH demand.
Today, it might be 1 million users, each holding a little ETH in their wallets for gas. In the future, it could become a few Paymasters, wallet service providers, and applications holding larger revolving balances of ETH, then uniformly handling gas for a large number of ordinary users.
Of course, don't naively think that "every time a user pays in stablecoins, someone in the background will immediately go to the secondary market to buy an equivalent amount of ETH." Payment agents have their own inventory management and hedging strategies, making it difficult to directly translate into the kind of immediate buying pressure imagined by retail investors.
Paymasters can prepare inventory in advance, dynamically replenish, or adopt other fund management methods. Therefore, based solely on "gas can be paid with stablecoins in the future," it's hard to directly infer how much new buying pressure ETH will generate.
The real determining factor hinges on only one logic: After the experience optimization, does it ultimately bring more genuine demand for using Ethereum? Can it truly grow the ecosystem?
A simple calculation makes it intuitive:
- If in the past, 100 people intended to enter, but 70 gave up halfway due to the hassle of buying gas, calculating Gwei, bridging, etc., leaving only 30 who completed their transactions;
- In the future, if wallets handle all these complexities in the background, allowing 80 people to smoothly complete their transactions—even if they don't hold a single speck of ETH—the network's actual gas consumption and ETH burned would be far greater than before.
Conversely, if the entire ecosystem fails to bring incremental activity and merely changes "paying yourself" to "having someone else pay," then indeed no new incremental value would be created.
In Conclusion
From the author's perspective, it diminishes the necessity for "every user must stock up on a little ETH before using Ethereum." However, the bet is that once this barrier disappears, more people will genuinely start using Ethereum.
For ordinary users, there's no need to change their habits based on this EIP right now. However, from the perspective of wallet development, the direction it points to is quite clear.
A well-designed wallet in the future should increasingly avoid requiring users to first understand Gas. Users should be responsible for deciding where their assets go and what operations to perform; the wallet should be responsible for informing them of the risks and the final cost. As for which account should pay, whether to charge in ETH or stablecoins, and whether usable Gas Sponsors exist, these complex protocol details should gradually be hidden in the background.
Truly mature infrastructure often develops in this way.
