Hong Kong Ethereum Watch: When the "World Computer" Meets "Interest-Bearing Assets," How Do Two Types of ETH Resonance?

In April 2026, Hong Kong is simultaneously telling two stories about Ethereum.

At the 2026 Hong Kong Web3 Carnival, Vitalik Buterin continues to discuss security, decentralization, verifiability, quantum resistance, and long-term sustainability, trying to answer “What should Ethereum look like in the next five years”; meanwhile, on the other side, from BitMine to BlackRock, institutional investors and asset management giants are increasingly viewing ETH as an underlying asset that can enter balance sheets, generate staking yields, and be packaged into ETFs and traditional account systems.

In other words, while Vitalik is still talking about the “world computer,” institutions are already treating ETH as a “cash flow asset,” but paradoxically, both descriptions are indeed about the same Ethereum.

This creates a very interesting and worth-recording sense of division.

The Ethereum in Vitalik’s eyes and the Ethereum in institutions’ eyes seem to be turning into two different things. One belongs to protocol design, cryptography, security boundaries, and long-termism; the other to asset allocation, staking yields, ETF packaging, and balance sheet management.

But the question is not about who is right or wrong, but whether the narrative focus of ETH has quietly shifted as these two perspectives begin to appear simultaneously. Furthermore, for most ordinary Ethereum users who are neither institutions nor protocol developers, what does this change mean?

1. Vitalik Still Answering “Why Does Ethereum Exist”

This time, Vitalik’s public statement in Hong Kong almost restructured all the key directions in Ethereum’s roadmap for the near future.

Individually, each keyword is very technical, such as scalability, account abstraction, post-quantum, ZK-EVM, Lean Consensus, formal verification, state layer optimization, but if these are put back into the same question, you’ll find he’s actually doing one very unified thing—designing a long-term architecture for Ethereum that can continue to operate securely even if any specific team leaves.

He sets two core functions for Ethereum very simply:

First is a public bulletin board. Applications post messages here, and everyone can see the content and order of these messages. These messages can be transactions, hashes, encrypted data, or more complex on-chain commitments. The important thing is not what these messages are, but that “they are seen by everyone simultaneously, and their order can be verified,” which has public trustworthiness (see extended reading: “From ‘Global Computer / Settlement Layer’ to ‘Bulletin Board’: What do Ethereum and Vitalik want to do?”).

Second is shared computation. That is, providing an open, verifiable, and tamper-resistant environment for code-controlled shared digital objects—tokens, NFTs, ENS, identities, DAO control rights, on-chain organizational rules. On the surface, these are different applications; from a protocol perspective, they are just different expressions of the same abstract layer: all require an open, verifiable, and hard-to-manipulate rule execution environment.

Around these two functions, Vitalik’s value hierarchy for Ethereum is also very clear: sovereignty, verifiability, and fair participation should take precedence over pure efficiency. In other words, speed is important, scalability is important, but they should not be reasons for Ethereum to sacrifice its foundational principles. Ethereum is not meant to be the fastest chain, but the most reliable one.

This hierarchy also determines every technical trade-off in the roadmap over the next five years.

In the short term, Ethereum needs to continue scaling, improve account abstraction, block construction processes, node synchronization, and privacy support. For example, increasing the gas limit, achieving better parallel verification through block-level access lists, enabling validators to perform more thorough block checks with ePBS, and further optimizing node state synchronization.

In the medium term, the real challenge is not execution layer scaling but state layer scaling. Computing can be optimized, parallelized, and advanced through hardware and engineering means, but state must be stored, synchronized, and verified. If not handled well, this will gradually push out ordinary nodes and light validators from the network. This is why Vitalik repeatedly emphasizes the state layer issue: if verification thresholds keep rising, Ethereum will unknowingly lose its most precious decentralization foundation.

Post-quantum is another mid- to long-term mainline. Vitalik uses a vivid metaphor: imagine a country that has never experienced rain, with all houses unprepared for rain. The first rain might cause only 5% of houses to leak, but residents won’t be anxious initially because they’ve never seen rain—until one day they are told that rain will come in five or ten years.

At that point, society must relearn how to repair houses, schools, and offices. Quantum computing for Ethereum is like that rain that hasn’t come yet but must be prepared for in advance.

Quantum-resistant signature algorithms are not entirely new; the real difficulty lies in efficiency. Hash-based signatures might reach 2–3 KB, while current common signatures are only a few dozen bytes. The gas cost for on-chain verification of quantum-resistant signatures could be far higher than current schemes. Simply replacing every transaction with quantum-resistant signatures would directly crush Ethereum’s efficiency.

Therefore, the solution is not to burden each transaction with heavy costs but to shift the pressure from “single signatures” to “bundled blocks.” This also means that only when zk tools mature will the migration to quantum resistance become practically feasible.

In the longer term, Vitalik’s roadmap almost describes an ultimate state for Ethereum: Lean Consensus, ZK-EVM, formal verification, and walkaway tests.

Looking at these technical items together, what Vitalik truly aims to solve is how to ensure Ethereum’s security does not depend on any specific team, client, hardware assumption, or cryptographic tool’s continuous existence. Ultimately, it’s about maintaining Ethereum’s position on decentralization, security, and trustworthiness—things that others cannot do well but must do. Efficiency, user experience, and vertical needs are left to Layer 2 and application layers.

2. From “World Computer” to “Interest-Bearing Asset,” Institutions Reassess ETH

Compared to Vitalik’s protocol perspective, institutions’ understanding of ETH is much more straightforward.

They may not first discuss Lean Consensus, state tree optimization, or post-quantum migration, nor describe Ethereum as a “public bulletin board.” Their concerns are usually more direct: Can ETH be held securely? Can it generate yields? Can it enter balance sheets? Can it be packaged into compliant products? Can it support larger-scale capital?

BitMine’s actions are a concentrated reflection of this institutional language.

As of April 24, BitMine holds 4,976,485 ETH, about 4.12% of the total ETH supply, with 3.47M ETH staked, accounting for 70% of its total ETH holdings.

Notably, Tom Lee and BitMine are accelerating their ETH staking progress, turning their ETH from a mere speculative asset waiting for price appreciation into a native on-chain fundamental asset with yield-generating capabilities.

This is the biggest difference between ETH and most other crypto assets. Many assets’ values still heavily depend on narratives, liquidity, and risk appetite, but ETH’s asset attributes are becoming more complex. It has utility, staking mechanisms, burn mechanisms, on-chain economic activity, and the potential to be repackaged into traditional financial products.

BlackRock’s ETHB represents another path.

As an iShares product, it links ETH price exposure with staking yield distribution within a traditional asset management framework, emphasizing that investors can gain ETH exposure through conventional brokerage accounts without managing private keys, operating nodes, or handling on-chain staking processes (see extended reading: “When Wall Street’s ETH Starts ‘Earning’: From BlackRock’s ETHB, a Shift in Ethereum’s Asset Attributes”).

Essentially, this is a translation: it encapsulates complex crypto-native terms like self-custody, staking, validators, slashing, and gas into more familiar concepts like custody, monthly/yearly yields. For crypto-native users, it might feel nothing special; for traditional capital, this is the interface needed to access a new asset class.

Interestingly, the Ethereum Foundation itself has begun to actively leverage ETH’s yield-generating properties. On February 24, the Foundation announced the Treasury Staking Initiative, pledging about 70k ETH for staking, with the staking rewards directed back into the Foundation’s treasury to support long-term operations and ecosystem development. The Foundation emphasized that this process would strive to use open-source software, reduce client centralization, and control risks through multi-region, multi-operator configurations.

This move is quite telling: from Tom Lee’s BitMine to BlackRock, and now the EF, they are all placing ETH into a new asset framework. As a result, ETH in the eyes of institutions is beginning to show a hybrid form between “digital commodity,” “infrastructure asset,” and “interest-bearing asset.” It possesses Bitcoin-like scarcity, network stock-like growth potential, and native yield features due to PoS mechanisms.

This shifts ETH’s valuation framework away from just “Will it rise in a bull market?” to more traditional discussions such as staking yields, total supply, burn volume, institutional holdings, product scale, capital inflows, and whether on-chain settlement demand will continue to grow.

Of course, this does not mean ETH has become a low-risk asset; it remains highly volatile and exposed to regulatory, technological, market cycle, and liquidity risks. But the difference is that institutions are now re-pricing these risks within familiar asset management frameworks rather than simply treating ETH as a high-beta crypto asset.

3. Two Types of Ethereum, Two Discounted Valuations of the Same Value

Writing here, one might mistakenly think that Vitalik’s Ethereum and institutional Ethereum are two different things:

One is a continuously evolving technical protocol, and the other is a yield-generating interest-bearing asset from a financial perspective; one belongs to developers, the other to Wall Street; one emphasizes long-termism, the other asset returns.

But in fact, the opposite is true. These two perspectives are not mutually exclusive; they are actually mutually reinforcing.

Because ultimately, the reason institutions are willing to buy, hold, and stake ETH in large quantities is precisely because of the long-term vision Vitalik has promised—providing the premise for ETH’s long-term asset properties.

For institutions with holding periods measured in years, their real concern is not short-term price fluctuations but the unpredictability of the underlying asset rules. If a protocol’s signature scheme might fail suddenly in the quantum era, if a client vulnerability could cause network halts, if the finality and consensus security cannot withstand extreme conditions, or if the roadmap heavily depends on a single team remaining online, then no matter how attractive the yield model, it is just a digital game built on quicksand.

Therefore, the technical terms in Vitalik’s roadmap—quantum resistance, Lean Consensus, ZK-EVM, formal verification, walkaway tests—can be summarized into four words for institutions:

Long-term trustworthiness.

So, “exit tests,” though engineering language, are very meaningful for institutions: Ethereum’s stability does not depend on any specific team always being present, nor on cryptographic assumptions always holding, nor on a few client teams never having issues. This is the necessary condition for Ethereum to be regarded as a long-term asset.

Conversely, large-scale staking by institutions also provides economic support for Vitalik’s roadmap.

As is well known, after Ethereum transitioned to PoS, security is no longer solely derived from cryptography and client engineering but also from the scale, distribution, and penalty mechanisms of staked ETH. The more ETH staked and the higher its market cap, the greater the economic cost for an attacker to influence consensus. Therefore, each ETH staked by BitMine is not just a slogan at the consensus level but a real contribution to Ethereum’s security budget.

In other words, Vitalik’s push for quantum resistance, Lean Consensus, and ZK-EVM at the technical level raises Ethereum’s lower bound; institutions’ large holdings and staking of ETH at the economic level raise its lower bound as well. Both lines of effort push each other higher, making Ethereum more reliable.

This is why the “world computer” and “interest-bearing cash flow asset” may seem like two different definitions but are actually two sides of the same coin. Different perspectives, same goal: to grow Ethereum.

A mature global infrastructure naturally requires these two perspectives to coexist.

In conclusion

Objectively, today, Ethereum is no longer a network that can be explained by a single narrative.

It is both the public bulletin board and world computer in Vitalik’s words, and the interest-bearing asset and infrastructure exposure in the eyes of institutions; both the protocol engineering driven by developers and the digital asset being re-priced by capital markets; both embodying sovereignty, verifiability, and trustworthiness, and beginning to be incorporated into ETFs, balance sheets, and yield models.

In the coming years, the market may not price ETH exactly according to Vitalik’s language, but the reason institutions keep buying, staking, and packaging ETH is precisely because Vitalik’s emphasis on security, decentralization, verifiability, and long-term stability is gradually transforming into a “systemic dividend” that can be discounted by capital markets.

This may be the most important change for Ethereum in 2026.