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Tickets, But Programmable: How NFT Ticketing Is Quietly Rewriting Live Events

· 11 min read
Dora Noda
Software Engineer

The concert ticket in your digital wallet is on the verge of a massive upgrade. For decades, a ticket has been a static, disposable proof of purchase—a barcode to get you in the door, and nothing more. That model is evolving. The ticket is becoming a programmable, portable membership object, capable of unlocking experiences long after the show ends.

Done right, NFT tickets can drastically reduce fraud and scalping, create fairer access for superfans, and give organizers powerful new ways to reward loyalty—all without forcing fans to understand cryptocurrency. This isn't a theoretical future; real deployments are already live across major concerts, professional sports, aviation, and even Formula 1. The next wave of adoption hinges on seamless user experience, thoughtful policy design, and pragmatic technology choices.

The Old Ticket Stack Is Fraying

The traditional digital ticketing system is brittle and showing its age. Fans and organizers alike feel the pain points:

  • Fraud & Bots: Predatory bots snatch up inventory the moment it goes on sale, only to list it on secondary markets at hugely inflated prices, shutting out real fans. Fake or duplicate tickets plague these markets, leaving buyers with empty hands and lighter wallets.
  • Fragmented Systems: A fan’s history is scattered across dozens of vendor accounts. This makes simple actions like transferring a ticket to a friend a painful process and leaves organizers with no unified view of their most loyal attendees.
  • Disposable Artifacts: Once scanned, a QR code or PDF ticket becomes useless digital trash. It holds no ongoing value, tells no story, and offers no future utility.

Meanwhile, the market remains dominated by a primary seller facing ongoing antitrust scrutiny. State-by-state reform efforts are gaining steam, signaling that the status quo is neither beloved nor stable. The system is ripe for a change.

Tickets, But Programmable

NFT tickets aren’t about speculative digital art; they're about programmable access and ownership. By representing a ticket as a unique token on a blockchain, we fundamentally change what it can do:

  • Provable Ownership: Tickets live in a user's digital wallet, not just in a vendor's siloed database. This cryptographic proof of ownership dramatically reduces the risk of counterfeit tickets and enables secure, verifiable transfers between fans.
  • On-Chain Transfer Rules: Organizers can embed rules directly into the ticket’s smart contract. This could mean setting fair-transfer windows, capping resale prices at face value, or building in other logic that curbs predatory scalping and aligns incentives for everyone.
  • Loyalty That Compounds: A wallet containing tickets from past events becomes a portable and verifiable “fan graph.” Organizers can use this history to offer token-gated presales, seat upgrades, and exclusive perks that reward actual attendance, not just names on an email list.
  • Interoperability: “Sign in with wallet” can become a universal identity layer across different venues, artists, and partners. Fans get a unified experience without spreading their personal information across countless platforms.

This technology is already leaving the lab and proving its value in the wild.

Proof It Works: Live Deployments to Study

These are not “maybe someday” pilots; they are live systems processing real fan traffic and solving real problems today.

  • Token-Gated Presales at Scale: Ticketmaster has already launched NFT-gated ticket sales. In a pilot with the band Avenged Sevenfold, members of the "Deathbats Club" NFT community received exclusive early and discounted access to tickets, rewarding dedicated fans and filtering out bots.
  • Souvenir NFTs with Mainstream Brands: Live Nation and Ticketmaster have issued millions of virtual commemorative ticket NFTs, called “Live Stubs,” for major concerts and NFL games. This introduces fans to digital collectibles with virtually zero friction, turning a simple ticket into a lasting keepsake.
  • Aviation Goes On-Chain: Argentinian airline Flybondi began issuing its tickets as NFTs via the TravelX platform on the Algorand blockchain. This model enables flexible name changes and new commerce opportunities, proving the technology can work in an industry with strict operational, security, and identity requirements.
  • Global Sports & Premium Hospitality: Formula 1’s ticketing provider, Platinium Group, rolled out Polygon-based NFT tickets that come with perks persisting long after race day, such as hospitality access and future discounts. This transforms a one-time seat into an enduring membership touchpoint.

What NFT Tickets Unlock for Fans & Organizers

This shift creates a win-win scenario, offering tangible benefits to everyone in the ecosystem.

  • Fairer Access, Less Chaos: Token-gated presales can effectively reward verified attendees or fan club members, bypassing the captcha wars and bot-driven chaos of a general sale. The fact that the largest U.S. primary ticket seller now natively supports this proves its viability.
  • Transfers with Guardrails: Smart contracts allow organizers to define how and when tickets can be transferred, aligning with local laws and artist preferences. Secondary royalties are also possible through standards like EIP-2981, though enforcement depends on marketplace adoption. This gives organizers more control over the secondary market.
  • Portable Loyalty: Commemorative drops, like digital stubs or POAPs (Proof of Attendance Protocols), build a verifiable fan history that can actually be used across different venues, brands, and seasons. Your attendance record becomes a key to unlocking future rewards.
  • Interoperable User Experience: With custodial wallets and simple email or SMS logins, fans don’t need to manage complex seed phrases. Mass-market rollouts like Reddit’s millions of on-chain avatars—purchased with standard currency—prove this user-friendly pattern can scale.

Patterns We Recommend Shipping (In Order)

  1. Start with “Souvenir Mode.” The lowest-risk, highest-reward entry point is to issue free or bundled commemorative NFTs delivered after a ticket is scanned. This builds your on-chain fan graph and educates users without adding friction to the core job of getting them in the door. Live Nation’s “Live Stubs” is the perfect precedent.
  2. Layer in Token-Gated Presales for Superfans. Use the fan graph you’ve built. Let proven attendees or fan club members unlock prime seats or early access windows. This creates a clear reward for loyalty, reduces bot competition, and provides much cleaner economic data. The Avenged Sevenfold presale is the canonical case study here.
  3. Make the Ticket a Wallet. Treat each ticket as the root credential for delivering ongoing perks. This could be exclusive merchandise access, instant seat upgrades, food and beverage credits, or even artist AMAs—delivered before, during, and after the show. Formula 1’s membership-style approach points the way forward.
  4. Design the Secondary Market Thoughtfully. If you allow resale, establish clear rules that fit your policies and fan expectations. This could mean time-boxed transfer windows, fee caps, or face-value requirements. While standards like EIP-2981 signal royalty preferences, some marketplaces have made them optional. A direct, branded resale channel can be a wise move to ensure your rules are respected.

What Can Go Wrong (and How to Avoid It)

  • Custody & Platform Risk: Don’t strand your customers on a centralized island. When the crypto exchange FTX collapsed, some Coachella NFTs tied to the platform were stuck. If a technology partner disappears, fans shouldn’t lose their assets or benefits. Use portable wallets and ensure perks can be reissued or recognized elsewhere.
  • UX Over Crypto Jargon: The average fan should never have to see terms like “seed phrase,” “gas fees,” or “blockchain.” As Reddit demonstrated, gentle, custodial onboarding with familiar fiat checkouts is the key to scaling to millions of users. The complexity should remain under the hood.
  • Unrealistic Royalty Expectations: “Automatic royalties forever” is not guaranteed across all secondary markets. If resale economics are a key part of your strategy, consider launching your own resale venue or enforcing your rules through allowlists and clear branding terms with partners.
  • The Policy Patchwork: Ticketing laws are actively being revised across the U.S., with a focus on refunds, price transparency, anti-bot measures, and transfer rights. Your system must be architected to allow for configuration by region, and your policies must be communicated explicitly to fans.

Architecture Blueprint (Pragmatic, Chain-Agnostic)

  • Chain Selection: Favor low-fee, high-throughput networks already used in consumer contexts, such as Polygon, Flow, or Algorand. Mainstream deployments have gravitated toward these chains for their low cost, speed, and better environmental footprint.
  • Token Standard: Use ERC-721 for unique, assigned seats and ERC-1155 for general admission sections or tiers. Add EIP-2981 metadata if you plan to support royalties within compliant marketplaces.
  • Wallet UX: Default to custodial wallets that use email/SMS login or passkeys for authentication. Provide an easy, optional path for users to “export to self-custody.” Pre-mint tickets to wallets or use a mint-on-claim model to reduce waste.
  • Gating & Scanning: Use fast, off-chain allowlists or Merkle proofs at the gate for quick entry. Verify ownership with time-limited digital signatures to prevent simple QR code screenshotting. After a successful scan, delight the fan by airdropping perks like POAPs, collectibles, or coupons.
  • Secondary Market & Compliance: If you enable resale, route it through a branded marketplace or a partner that respects your rules. Parameterize transferability settings to comply with different state and local laws, and pair on-chain rules with clear, human-readable refund and transfer policies.

Metrics That Actually Matter

Move beyond vanity metrics and focus on what truly indicates success.

  • Access Fairness: Measure the presale conversion rate for verified fans versus the general public. Track the percentage of tickets that are resold within a face-value price band.
  • Operational Reliability: Monitor gate throughput, scan failure rates, and the load on your customer support team. A successful implementation should reduce friction, not create it.
  • Fan Compounding: Track repeat attendance among NFT holders, measure the redemption rates for digital perks, and analyze the revenue uplift from token-gated campaigns.
  • Unit Economics: Analyze your fee take-rate net of fraud-related chargebacks. Calculate the blended customer acquisition cost and lifetime value when wallet data is used to inform marketing and targeting.

Case Study Nuggets to Borrow

  • Use NFTs as a "Thank You," Not a Hurdle: Live Nation’s commemoratives cost fans nothing and teach them the flow. Start there before you touch access control.
  • Reward Real Attendance: Token-gated presales that reference past check-ins feel fair and build loyalty.
  • Design Perks with a Shelf-Life: Formula 1’s persistent benefits, like hospitality access and future discounts, extend the ticket’s utility far beyond the event itself.
  • Avoid a Single Point of Failure: The Coachella-FTX saga underscores why portability matters. Own the fan relationship; let users take their assets with them when they want.

The Policy Reality (Briefly)

The regulatory landscape is heating up. Federal and state attention on ticketing is rising, with transparency, refunds, anti-bot rules, and transferability becoming hot-button issues. Your smart contracts and user experience must be flexible enough to adapt on a jurisdiction-by-jurisdiction basis. The entire market structure is in flux, and building on portable, open rails is the safest long-term bet.

A Practical Rollout Plan (90 Days)

Phase 1: Collectibles (Weeks 1-4)

  • Implement free commemorative NFTs for all attendees, claimed via email after the event. Measure your claim rate and wallet creation stats.

Phase 2: Fan-First Presales (Weeks 5-8)

  • Pilot a small, token-gated presale for verified past attendees. Communicate the process clearly and keep a traditional queue open as a backup.

Phase 3: Perks & Partnerships (Weeks 9-10)

  • Turn the ticket into a perks wallet. Link it to merchandise unlocks, partner discounts, or exclusive content drops for specific seat sections or cities.

Phase 4: Controlled Resale (Weeks 11-12)

  • Launch a branded resale page with rules aligned to local law. Test face-value caps and transfer windows on a small scale before rolling out nationally.

Closing Thought

The paper stub was once a cherished souvenir of a great night out. NFT tickets can be that—and so much more. When access is programmable, loyalty becomes a composable asset that travels with a fan across venues, artists, and seasons. Fans get fairer access and better perks; organizers get durable relationships and cleaner economics. And when the crypto complexity stays under the hood where it belongs, everybody wins.

A Developer's Guide to Stripe's L1 Tempo

· 11 min read
Dora Noda
Software Engineer

Introduction

Stripe's Tempo is a newly launched Layer-1 (L1) blockchain network with a core focus on processing high-speed, low-cost stablecoin payments. The project was co-incubated by payments giant Stripe and prominent crypto venture capital firm Paradigm. From its inception, it has been positioned as a "payments-first" blockchain, designed to meet the demanding scale and performance requirements of real-world financial scenarios. In 2025, Tempo entered a private testnet phase, co-designing and validating its features with several heavyweight partners, including Visa, Deutsche Bank, Shopify, and OpenAI. For the developer community, the emergence of Tempo presents a new opportunity—to build the next generation of payment applications on an underlying infrastructure optimized for stablecoins and commerce use cases. This guide will detail how developers can technically integrate with Tempo, what resources and communities are available, and how to participate in this growing ecosystem.

1. Technical Integration: Building on L1 Tempo

A core design philosophy of Tempo is to lower the barrier to entry for developers by choosing a path of full Ethereum compatibility. This means developers can build on it using existing mature tools and knowledge bases. Tempo's architecture is based on Reth (a Rust implementation of an Ethereum client led by Paradigm), making it naturally compatible with Ethereum smart contracts and its developer toolchain.

Here are its key technical features and integration points:

  • EVM and Smart Contracts: Tempo fully supports Solidity smart contracts and the Ethereum Virtual Machine (EVM). Developers can use standard frameworks like Hardhat, Truffle, and Foundry, as well as libraries like ethers.js and web3.js, to write, test, and deploy smart contracts. For Web3 developers, this seamless compatibility means there is almost no learning curve. Existing dApps, wallets (like MetaMask), and development tools work "out-of-the-box" on Tempo, paving the way for the easy migration of mature applications from Ethereum.

  • High Throughput & Finality: Tempo has been deeply optimized for the speed requirements of payment scenarios. Its design target is to achieve a processing capacity of over 100,000 transactions per second (TPS) and to reach sub-second deterministic finality. This means that once a transaction is confirmed, it is irreversible, eliminating the risk of transaction reordering (reorgs) that can occur with traditional probabilistic confirmations (like Proof-of-Work). This high performance and certainty are crucial for applications with stringent instant settlement requirements, such as point-of-sale (POS) systems, exchanges, and micropayments.

  • Stablecoin-Native Design: Unlike most general-purpose public chains, the Tempo network does not rely on a volatile native token to pay for transaction fees (Gas). Transaction fees on its network can be paid directly using major stablecoins (like USDC, USDT, etc.). To achieve this, the protocol integrates an automated market maker (AMM) that can automatically handle swaps between different stablecoins in the background, ensuring "issuer neutrality" for fee payments. For developers and users, this greatly improves the experience, as transaction costs can be stably pegged to fiat value (e.g., always around $0.001), avoiding the uncertainty caused by native token price volatility.

  • Payment-Oriented Features: Tempo adds several features at the protocol level tailored for financial and payment applications. These include:

    • "Payment Lanes": By isolating payment-type transactions from other types of on-chain activity (like complex DeFi operations), these lanes ensure low latency and high priority for payments.
    • Native Batch Transfers: Leveraging technologies like Account Abstraction, it supports efficiently sending payments to multiple addresses in a single transaction, which is highly practical for scenarios like payroll and supplier payments.
    • Transaction Memo Fields: This field is compatible with the ISO 20022 financial messaging standard, allowing metadata such as invoice reference numbers or compliance data to be attached to on-chain transactions, greatly simplifying corporate financial reconciliation processes.
    • Optional Privacy: The protocol supports optional transaction privacy features to meet enterprise compliance needs for protecting commercially sensitive information.
  • Integration via Stripe API: Stripe plans to deeply integrate Tempo into its existing product suite, offering developers two integration paths. The first is direct on-chain development, where Web3 developers use familiar toolchains to deploy smart contracts directly on Tempo. The second is integration via Stripe's high-level APIs, which completely abstracts away the complexity of the blockchain. For example, Stripe's Bridge platform (a tool for cross-chain stablecoin flows) will use Tempo as one of its core settlement rails in the future. Developers will only need to call Stripe's familiar REST API to initiate a payment or transfer, and the Stripe system will automatically execute it on the Tempo network in the background. This allows them to enjoy the speed and cost advantages of the blockchain without needing to worry about underlying details like node management or private key signing.

2. Developer Documentation, Tutorials, and Onboarding Resources

As of late 2025, Tempo is still in a private testnet phase, and its official developer documentation is actively being written. However, Tempo's official website has confirmed that "comprehensive technical documentation for developers is coming soon."

In the meantime, interested developers can obtain preliminary information through the following channels:

  • Official Website & FAQ: Visiting Tempo's official website and its Frequently Asked Questions (FAQ) page provides a high-level overview of its design philosophy, core features, and how it differs from general-purpose blockchains.
  • Apply for Testnet Access: Interested developers or companies can submit an application through the channel provided on the Tempo website (partners@tempo.xyz) to gain access to its private testnet for early exploration and prototyping.

Based on Stripe's consistent focus on developer experience, we can expect the official documentation, once released, to include the following resources:

  • Getting Started Guides: Detailed tutorials guiding developers on how to set up their development environment, connect to the Tempo testnet, and deploy their first smart contract.
  • API References and SDK Documentation: Complete technical references for the Stripe API integration path, as well as documentation for the JSON-RPC endpoints for interacting with the Tempo protocol.
  • Tutorials & Sample Applications: Open-source sample code and projects demonstrating how to build common payment applications on Tempo.
  • Best Practices: Professional advice on security, compliance, performance optimization, and other areas.

Stripe is renowned for its clear, high-quality API documentation, and there is good reason to believe that Tempo's documentation will maintain the same standard.

3. Stripe’s Developer Engagement Channels and Community

Stripe has a mature and active developer community ecosystem. For developers who want to stay updated on Tempo and receive technical support, the following official channels are available:

  • Stripe Developer Discord: This is a large community with over 120,000 members, where Stripe engineers directly participate in answering questions. The latest announcements, technical discussions, and community support for Tempo can all be found here.
  • Online Forums and Q&A Platforms: Stripe's team actively monitors and responds to questions posted on Stack Overflow (using the stripe tag) and Twitter/X (@StripeDev).
  • Stripe Blog and Newsletters: This is the primary channel for official information, in-depth technical articles, and product updates. Major milestones and case studies for Tempo will be published here.
  • Developer Events & Webinars: Stripe regularly hosts online and offline events. In particular, its annual developer conference, Stripe Sessions, is often the platform for major product announcements and will likely feature dedicated technical sessions and workshops for Tempo in the future.

By tapping into these established channels, developers can easily obtain information, solve problems, and connect with other developers interested in Tempo.

4. Opportunities to Contribute to the Tempo Ecosystem

As Tempo transitions from an internal incubation project to an open public network, developers have various ways to participate and contribute to its ecosystem beyond just building applications:

  • Open Source Contributions: Tempo is based on the open-source Reth client, and its own core components are expected to be gradually open-sourced. Developers will be able to review the code, submit issues, propose improvements, and even contribute code directly to jointly enhance the protocol's performance and security.
  • Validator Participation and Network Governance: Tempo's validator nodes are currently operated by founding partners in a permissioned model, but the long-term plan is to transition to a permissionless model. At that point, any technically capable developer or organization can run a validator node, participate in network consensus, and earn transaction fees in the form of stablecoins while securing the network. As the network decentralizes, a community governance mechanism may also be established, allowing developers to participate in protocol upgrade decisions.
  • Protocol Improvement Proposals (TIPs): Developers can draw inspiration from the Ethereum EIPs model by writing and discussing Tempo Improvement Proposals (TIPs) to suggest new features or optimizations to existing mechanisms, thereby directly influencing the protocol's evolution.
  • Participating in Hackathons and Developer Challenges: Stripe and Paradigm both have a tradition of supporting developer events. It is foreseeable that once Tempo's developer toolchain matures, there will be dedicated hackathon tracks or prize challenges to encourage developers to innovate on it.
  • Community Education & Knowledge Sharing: As early participants, developers can share their experiences and insights by writing technical blogs, creating video tutorials, answering questions in the community, or speaking at technical conferences, helping to grow the entire developer community.

The Tempo ecosystem is in its early stages of construction, providing a valuable opportunity for developers to get deeply involved in various ways and shape its future.

5. Incentives and Grant Programs for Developers

Currently, Stripe has not formally announced any grant programs or incentives for Tempo developers. At the same time, Tempo's design explicitly rules out issuing a new, speculative native token. However, this does not mean the ecosystem lacks support for developers. It is foreseeable that future incentives will focus more on utility and ecosystem building, and may include:

  • Ecosystem Fund: Established by Stripe, Paradigm, or an independent foundation to provide direct grants to teams building critical infrastructure (such as wallets, explorers, analytics tools) or promising applications for the Tempo ecosystem.
  • Hackathon Prizes & Bounties: Incentivizing developers through competitions and by posting bounties for specific development tasks, such as developing an open-source library for a particular feature.
  • Partner Incentives: For enterprise partners who choose to integrate Tempo into their business, Stripe may offer commercial incentives such as fee reductions, priority technical support, or joint marketing promotions.
  • Validator Rewards: Once the network transitions to a permissionless model, running a validator node and processing transactions will provide a continuous stream of income from transaction fees denominated in stablecoins.
  • Strategic Investment: For startups that build outstanding products or services on Tempo, strategic investment or potential acquisition from Stripe or Paradigm is also an important incentive.

In summary, Tempo's incentive model will revolve around building real-world value rather than token speculation.

6. Events, Workshops, and Meetups Around Tempo

Developers who want to learn more about Tempo and connect with the community can pay attention to the following types of events:

  • Stripe Sessions: Stripe's annual developer conference is the most important venue for getting the official roadmap and major updates for Tempo.
  • Paradigm Frontiers: Hosted by Paradigm for developers of cutting-edge crypto technology, future events will likely include in-depth technical sessions and hackathon challenges for Tempo.
  • Fintech & Crypto Industry Conferences: At major conferences like Money20/20 and Consensus, discussions on payment innovation will inevitably involve Tempo, making them good opportunities to understand its market positioning and commercial application prospects.
  • Local Meetups & Online Webinars: Smaller events organized by Stripe or local developer communities often provide more direct interaction and hands-on learning experiences.
  • Global Hackathons: Large hackathon events like ETHGlobal may feature Tempo as a sponsoring platform in the future, providing an opportunity for developers to innovate on an international stage.

Conclusion

Stripe's Tempo blockchain offers developers a unique intersection, blending the rigor of traditional fintech with the openness of the crypto world. Developers can leverage its Ethereum compatibility to get started quickly with familiar tools, or seamlessly integrate Tempo's powerful features into existing businesses through Stripe's APIs. Although the project is still in its early stages with much of the documentation and support programs still in development, the strong backing of Stripe and Paradigm signals a high commitment to developer experience and technological advancement. By actively using existing resources, joining the community, and participating in relevant events, developers can seize a valuable early-stage opportunity in a blockchain network focused on solving real-world payment problems.

From Passwords to Portable Proofs: A 2025 Builder's Guide to Web3 Identity

· 10 min read
Dora Noda
Software Engineer

Most apps still anchor identity to usernames, passwords, and centralized databases. That model is fragile (breaches), leaky (data resale), and clunky (endless KYC repeats). The new stack emerging around decentralized identifiers (DIDs), verifiable credentials (VCs), and attestations points to a different future: users carry cryptographic proof of facts about themselves and reveal only what’s needed—no more, no less.

This post distills the landscape and offers a practical blueprint you can ship with today.


The Shift: From Accounts to Credentials

The core of this new identity stack is built on two foundational W3C standards that fundamentally change how we handle user data.

  • Decentralized Identifiers (DIDs): These are user-controlled identifiers that don’t require a central registry like a domain name system. Think of a DID as a permanent, self-owned address for identity. A DID resolves to a signed “DID document” containing public keys and service endpoints, allowing for secure, decentralized authentication. The v1.0 standard became an official W3C Recommendation on July 19, 2022, marking a major milestone for the ecosystem.
  • Verifiable Credentials (VCs): This is a tamper-evident, digital format for expressing claims, like "age is over 18," "holds a diploma from University X," or "has passed a KYC check." The VC Data Model 2.0 became a W3C Recommendation on May 15, 2025, locking in a modern foundation for how these credentials are issued and verified.

What changes for developers? The shift is profound. Instead of storing sensitive personally identifiable information (PII) in your database, you verify cryptographic proofs supplied by the user’s wallet. You can request only the specific piece of information you need (e.g., residency in a specific country) without seeing the underlying document, thanks to powerful primitives like selective disclosure.


Where It Meets the Logins You Already Use

This new world doesn't require abandoning familiar login experiences. Instead, it complements them.

  • Passkeys / WebAuthn: This is your go-to for phishing-resistant authentication. Passkeys are FIDO credentials bound to a device or biometric (like Face ID or a fingerprint), and they are now widely supported across all major browsers and operating systems. They offer a seamless, passwordless login experience for your app or wallet.
  • Sign-In with Ethereum (SIWE / EIP-4361): This standard lets a user prove control of a blockchain address and link it to an application session. It works via a simple, signed, nonce-based message, creating a clean bridge between traditional Web2 sessions and Web3 control.

The best practice is to use them together: implement passkeys for mainstream, everyday sign-in and offer SIWE for wallet-linked flows where a user needs to authorize a crypto-native action.


The Rails for Issuing and Checking Credentials

For credentials to be useful, we need standardized ways to issue them to users and for users to present them to apps. The OpenID Foundation provides the two key protocols for this.

  • Issuance: OpenID for Verifiable Credential Issuance (OID4VCI) defines an OAuth-protected API for getting credentials from issuers (like a government agency or a KYC provider) into a user's digital wallet. It’s designed to be flexible, supporting multiple credential formats.
  • Presentation: OpenID for Verifiable Presentations (OID4VP) standardizes how your application makes a "proof request" and how a user's wallet responds to it. This can happen over classic OAuth redirects or through modern browser APIs.

When building, you’ll encounter a few key credential formats designed for different ecosystems and use cases:

  • W3C VC with Data Integrity Suites (JSON-LD): Often paired with BBS+ cryptography to enable powerful selective disclosure.
  • VC-JOSE-COSE and SD-JWT VC (IETF): These formats are built for JWT and CBOR-based ecosystems, also featuring strong selective disclosure capabilities.

Fortunately, interoperability is improving rapidly. Profiles like OpenID4VC High Assurance are helping to narrow the technical options, making cross-vendor integrations much saner for developers.


DID Methods: Picking the Right Address Scheme

A DID is just an identifier; a "DID method" specifies how it's anchored to a root of trust. You’ll want to support a couple of common ones.

  • did:web: This method backs a DID with a domain you control. It’s incredibly easy to deploy and is a fantastic choice for enterprises, issuers, and organizations who want to leverage their existing web infrastructure as a trust anchor.
  • did:pkh: This method derives a DID directly from a blockchain address (e.g., an Ethereum address). This is highly useful when your user base already has crypto wallets and you want to link their identity to on-chain assets.

Rule of thumb: Support at least two methods—did:web for organizations and did:pkh for individual users. Use a standard DID resolver library to handle the lookup, and consult official registries to evaluate the security, persistence, and governance of any new method you consider adding.


Useful Building Blocks You Can Plug In

Beyond the core standards, several tools can enhance your identity stack.

  • ENS (Ethereum Name Service): Provides human-readable names (yourname.eth) that can map to blockchain addresses and DIDs. This is an invaluable tool for improving user experience, reducing errors, and providing a simple profile layer.
  • Attestations: These are flexible, verifiable "facts about anything" that can be recorded on-chain or off-chain. The Ethereum Attestation Service (EAS), for example, provides a robust substrate for building reputation and trust graphs without ever storing PII on a public ledger.

Compliance Tailwinds You Should Track

Regulation is often seen as a hurdle, but in this space, it’s a massive accelerator. The EU Digital Identity Framework (eIDAS 2.0), officially adopted as Regulation EU 2024/1183 on May 20, 2024, is the most significant development. It mandates that all EU Member States offer citizens a free EU Digital Identity Wallet (EUDI). With implementing regulations published on May 7, 2025, this is a powerful signal for the adoption of wallet-based credentials across both public and private services in Europe.

Even if you don't operate in the EU, expect the EUDI Wallet and its underlying protocols to shape user expectations and drive wallet adoption globally.


Design Patterns That Work in Production (2025)

  • Passwordless First, Wallets Optional: Default to passkeys for sign-in. It's secure, simple, and familiar. Only introduce SIWE when users need to perform a crypto-linked action like minting an NFT or receiving a payout.
  • Ask for Proofs, Not Documents: Replace clunky document uploads with a crisp VC proof request using OID4VP. Instead of asking for a driver's license, ask for a proof of "age over 18" or "country of residence is X." Accept credentials that support selective disclosure, like those using BBS+ or SD-JWT.
  • Keep PII Off Your Servers: When a user proves something, record an attestation or a short-lived verification result, not the raw credential itself. On-chain attestations are a powerful way to create an auditable record—"User Y passed KYC with Issuer Z on date D"—without storing any personal data.
  • Let Orgs Be Issuers with did:web: Businesses, universities, and other organizations already control their domains. Let them sign credentials as issuers using did:web, allowing them to manage their cryptographic keys under their existing web governance models.
  • Use ENS for Names, Not Identity: Treat ENS as a user-friendly handle and profile pointer. It's great for UX, but keep the authoritative identity claims within credentials and attestations.

A Starter Architecture

Here’s a blueprint for a modern, credential-based identity system:

  • Authentication
    • Default Login: Passkeys (FIDO/WebAuthn).
    • Crypto-Linked Sessions: Sign-In with Ethereum (SIWE) for wallet-based actions.
  • Credentials
    • Issuance: Integrate with OID4VCI endpoints from your chosen issuers (e.g., a KYC provider, a university).
    • Presentation: Trigger OID4VP proof requests from your web or native app. Be prepared to accept both W3C VCs (with BBS+) and SD-JWT VCs.
  • Resolution & Trust
    • DID Resolver: Use a library that supports at least did:web and did:pkh. Maintain an allowlist of trusted issuer DIDs to prevent spoofing.
  • Attestations & Reputation
    • Durable Records: When you need an auditable signal of a verification, mint an attestation containing a hash, the issuer's DID, and a timestamp, rather than storing the claim itself.
  • Storage & Privacy
    • Minimalism: Drastically minimize the PII you store server-side. Encrypt everything at rest and set strict time-to-live (TTL) policies. Prefer ephemeral proofs and lean heavily on zero-knowledge or selective disclosure.

UX Lessons Learned

  • Start Invisible: For most users, the best wallet is the one they don’t have to think about. Use passkeys to handle sign-in seamlessly and only surface wallet interactions contextually when they are absolutely necessary.
  • Progressive Disclosure: Don't ask for everything at once. Request the smallest possible proof that unblocks the user's immediate goal. With selective disclosure, you don't need their full document to verify one fact.
  • Key Recovery Matters: A credential bound to a single device key is a liability. Plan for re-issuance and cross-device portability from day one. This is a key reason modern profiles are adopting formats like SD-JWT VC and claims-based holder binding.
  • Human-Readable Handles Help: An ENS name is far less intimidating than a long hexadecimal address. It reduces user error and adds a layer of recognizable context, even if the true authority lives in the underlying credentials.

What to Ship Next Quarter: A Pragmatic Roadmap

  • Weeks 1–2:
    • Add passkeys for your primary sign-in flow.
    • Gate all crypto-native actions behind a SIWE check.
  • Weeks 3–6:
    • Pilot a simple age or region gate using an OID4VP request.
    • Accept VC 2.0 credentials with selective disclosure (BBS+ or SD-JWT VC).
    • Start creating attestations for "verification passed" events instead of logging PII.
  • Weeks 7–10:
    • Onboard a partner issuer (e.g., your KYC provider) using did:web and implement a DID allowlist.
    • Offer ENS name linking in user profiles to improve address UX.
  • Weeks 11–12:
    • Threat-model your presentation and revocation flows. Add telemetry for common failure modes (expired credential, untrusted issuer).
    • Publish a clear privacy posture explaining exactly what you ask for, why, how long you retain it, and how users can audit it.

What’s Changing Fast (Keep an Eye on This)

  • EU EUDI Wallet Rollouts: The implementation and conformance testing of these wallets will massively shape capabilities and verification UX across the globe.
  • OpenID4VC Profiles: Interoperability between issuers, wallets, and verifiers is constantly improving thanks to new profiles and test suites.
  • Selective Disclosure Cryptosuites: Libraries and developer guidance for both BBS+ and SD-JWT VC are rapidly maturing, making them easier to implement.

Principles to Build By

  • Prove, Don’t Store: Default to verifying claims over storing raw PII.
  • Interoperate by Default: Support multiple credential formats and DID methods from day one to future-proof your stack.
  • Minimize & Disclose: Ask for the smallest possible claim. Be transparent with users about what you are checking and why.
  • Make Recovery Boring: Plan for device loss and issuer rotation. Avoid brittle key-binding that strands users.

If you’re building fintech, social, or creator platforms, credential-first identity isn’t a future bet anymore—it’s the shortest path to lower risk, smoother onboarding, and global interoperability.

How EigenLayer + Liquid Restaking Are Re‑pricing DeFi Yields in 2025

· 9 min read
Dora Noda
Software Engineer

For months, "restaking" was the hottest narrative in crypto, a story fueled by points, airdrops, and the promise of compounded yield. But narratives don't pay the bills. In 2025, the story has been replaced by something far more tangible: a functioning economic system with real cash flows, real risks, and a completely new way to price yield on-chain.

With key infrastructure like slashing now live and fee-generating services hitting their stride, the restaking ecosystem has finally matured. The hype cycle of 2024 has given way to the underwriting cycle of 2025. This is the moment where we move from chasing points to pricing risk.

Here’s the TL;DR on the state of play:

  • Restaking moved from narrative to cash flow. With slashing live on mainnet as of April 17, 2025, and the Rewards v2 governance framework in place, EigenLayer’s yield mechanics now include enforceable downside, clearer operator incentives, and increasingly fee-driven rewards.
  • Data availability got cheaper and faster. EigenDA, a major Actively Validated Service (AVS), slashed its prices by approximately 10x in 2024 and is on a path toward massive throughput. This is a big deal for the rollups that will actually pay AVSs and the operators securing them.
  • Liquid Restaking Tokens (LRTs) make the stack accessible, but add new risks. Protocols like Ether.fi (weETH), Renzo (ezETH), and Kelp DAO (rsETH) offer liquidity and convenience, but they also introduce new vectors for smart contract failures, operator selection risk, and market peg instability. We’ve already seen real depeg events, a stark reminder of these layered risks.

1) The 2025 Yield Stack: From Base Staking to AVS Fees

At its core, the concept is simple. Ethereum staking gives you a base yield for securing the network. Restaking, pioneered by EigenLayer, allows you to take that same staked capital (ETH or Liquid Staking Tokens) and extend its security to other third-party services, known as Actively Validated Services (AVSs). These can be anything from data availability layers and oracles to cross-chain bridges and specialized coprocessors. In return for this "borrowed" security, AVSs pay fees to the node operators and, ultimately, to the restakers who underwrite their operations. EigenLayer calls this a “marketplace for trust.”

In 2025, this marketplace matured significantly:

  • Slashing is in production. AVSs can now define and enforce conditions to penalize misbehaving node operators. This turns the abstract promise of security into a concrete economic guarantee. With slashing, "points" are replaced by enforceable risk/reward calculations.
  • Rewards v2 formalizes how rewards and fee distributions flow through the system. This governance-approved change brings much-needed clarity, aligning incentives between AVSs that need security, operators that provide it, and restakers who fund it.
  • Redistribution has started rolling out. This mechanism determines how slashed funds are handled, clarifying how losses and clawbacks are socialized across the system.

Why it matters: Once AVSs begin to generate real revenue and the penalties for misbehavior are credible, restaked yield becomes a legitimate economic product, not just a marketing story. The activation of slashing in April was the inflection point, completing the original vision for a system already securing billions in assets across dozens of live AVSs.


2) DA as a Revenue Engine: EigenDA’s Price/Performance Curve

If rollups are the primary customers for cryptoeconomic security, then data availability (DA) is where the near-term revenue lives. EigenDA, EigenLayer's flagship AVS, is the perfect case study.

  • Pricing: In August 2024, EigenDA announced a dramatic price cut of roughly 10x and introduced a free tier. This move makes it economically viable for more applications and rollups to post their data, directly increasing the potential fee flow to the operators and restakers securing the service.
  • Throughput: The project is on a clear trajectory for massive scale. While its mainnet currently supports around 10 MB/s, the public roadmap targets over 100 MB/s as the operator set expands. This signals that both capacity and economics are trending in the right direction for sustainable fee generation.

Takeaway: The combination of cheaper DA services and credible slashing creates a clear runway for AVSs to generate sustainable revenue from fees rather than relying on inflationary token emissions.


3) AVS, Evolving: From “Actively Validated” to “Autonomous Verifiable”

You may notice a subtle but important shift in terminology. AVSs are increasingly described not just as “Actively Validated Services” but as “Autonomous Verifiable Services.” This change in language emphasizes systems that can prove their correct behavior cryptographically and enforce consequences automatically, rather than simply being monitored. This framing pairs perfectly with the new reality of live slashing and programmatic operator selection, pointing to a future of more robust and trust-minimized infrastructure.


4) How You Participate

For the average DeFi user or institution, there are three common ways to engage with the restaking ecosystem, each with distinct trade-offs.

  • Native restaking

    • How it works: You restake your native ETH (or other approved assets) directly on EigenLayer and delegate to an operator of your choice.
    • Pros: You have maximum control over your operator selection and which AVSs you are securing.
    • Cons: This approach comes with operational overhead and requires you to do your own due diligence on operators. You shoulder all the selection risk yourself.
  • LST → EigenLayer (Liquid restaking without a new token)

    • How it works: You take your existing Liquid Staking Tokens (LSTs) like stETH, rETH, or cbETH and deposit them into EigenLayer strategies.
    • Pros: You can reuse your existing LSTs, keeping your exposure relatively simple and building on a familiar asset.
    • Cons: You are stacking protocol risks. A failure in the underlying LST, EigenLayer, or the AVSs you secure could result in losses.
  • LRTs (Liquid Restaking Tokens)

    • How it works: Protocols issue tokens like weETH (wrapping eETH), ezETH, and rsETH that bundle the entire restaking process—delegation, operator management, and AVS selection—into a single, liquid token you can use across DeFi.
    • Pros: The primary benefits are convenience and liquidity.
    • Cons: This convenience comes with added layers of risk, including the LRT's own smart contracts and the peg risk of the token on secondary markets. The depeg of ezETH in April 2024, which triggered a cascade of liquidations, serves as a real-world reminder that LRTs are leveraged exposures to multiple interconnected systems.

5) Risk, Repriced

Restaking’s promise is higher yield for performing real work. Its risks are now equally real.

  • Slashing & policy risk: Slashing is live, and AVSs can define custom, and sometimes complex, conditions for penalties. It is critical to understand the quality of the operator set you are exposed to and how disputes or appeals are handled.
  • Peg & liquidity risk in LRTs: Secondary markets can be volatile. As we've already seen, sharp dislocations between an LRT and its underlying assets can and do happen. You must build in buffers for liquidity crunches and conservative collateral factors when using LRTs in other DeFi protocols.
  • Smart-contract & strategy risk: You are stacking multiple smart contracts on top of each other (LST/LRT + EigenLayer + AVSs). The quality of audits and the power of governance over protocol upgrades are paramount.
  • Throughput/economics risk: AVS fees are not guaranteed; they depend entirely on usage. While DA price cuts are a positive catalyst, sustained demand from rollups and other applications is the ultimate engine of restaking yield.

6) A Simple Framework to Value Restaked Yield

With these dynamics in play, you can now think about the expected return on restaking as a simple stack:

Expected Return=(Base Staking Yield)+(AVS Fees)(Expected Slashing Loss)(Frictions)\text{Expected Return} = (\text{Base Staking Yield}) + (\text{AVS Fees}) - (\text{Expected Slashing Loss}) - (\text{Frictions})

Let's break that down:

  • Base staking yield: The standard return from securing Ethereum.
  • AVS fees: The additional yield paid by AVSs, weighted by your specific operator and AVS allocation.
  • Expected slashing loss: This is the crucial new variable. You can estimate it as: probability of a slashable event × penalty size × your exposure.
  • Frictions: These include protocol fees, operator fees, and any liquidity haircuts or peg discounts if you are using an LRT.

You will never have perfect inputs for this formula, but forcing yourself to estimate the slashing term, even conservatively, will keep your portfolio honest. The introduction of Rewards v2 and Redistribution makes this calculation far less abstract than it was a year ago.


7) Playbooks for 2025 Allocators

  • Conservative

    • Prefer native restaking or direct LST restaking strategies.
    • Delegate only to diversified, high-uptime operators with transparent, well-documented AVS security policies.
    • Focus on AVSs with clear, understandable fee models, such as those providing data availability or core infrastructure services.
  • Balanced

    • Use a mix of direct LST restaking and select LRTs that have deep liquidity and transparent disclosures about their operator sets.
    • Cap your exposure to any single LRT protocol and actively monitor peg spreads and on-chain liquidity conditions.
  • Aggressive

    • Utilize LRT-heavy baskets to maximize liquidity and target smaller, potentially higher-growth AVSs or newer operator sets for higher upside.
    • Explicitly budget for potential slashing or depeg events. Avoid using leverage on top of LRTs unless you have thoroughly modeled the impact of a significant depeg.

8) What to Watch Next

  • AVS revenue turn-on: Which services are actually generating meaningful fee revenue? Keep an eye on DA-adjacent and core infrastructure AVSs, as they are likely to lead the pack.
  • Operator stratification: Over the next two to three quarters, slashing and the Rewards v2 framework should begin to separate best-in-class operators from the rest. Performance and reliability will become key differentiators.
  • The "Autonomous Verifiable" trend: Watch for AVS designs that lean more heavily on cryptographic proofs and automated enforcement. These are likely to be the most robust and fee-worthy services in the long run.

9) A Note on Numbers (and Why They’ll Change)

You will encounter different throughput and TVL figures across various sources and dates. For instance, EigenDA's own site may reference both its current mainnet support of around 10 MB/s and its future roadmap targeting 100+ MB/s. This reflects the dynamic nature of a system that is constantly evolving as operator sets grow and software improves. Always check the dates and context of any data before anchoring your financial models to it.


Bottom Line

2024 was the hype cycle. 2025 is the underwriting cycle. With slashing live and AVS fee models becoming more compelling, restaking yields are finally becoming priceable—and therefore, truly investable. For sophisticated DeFi users and institutional treasuries willing to do the homework on operators, AVSs, and LRT liquidity, restaking has evolved from a promising narrative into a core component of the on-chain economy.


This article is for informational purposes only and is not financial advice.

Chain Abstraction Is How Enterprises Will Finally Use Web3 (Without Thinking About Chains)

· 8 min read
Dora Noda
Software Engineer

TL;DR

Cross-chain abstraction turns a maze of chains, bridges, and wallets into a single, coherent platform experience for both developers and end users. The ecosystem has quietly matured: intent standards, account abstraction, native stablecoin mobility, and network-level initiatives like the OP Superchain and Polygon's AggLayer make a "many chains, one experience" future realistic in 2025. For enterprises, the win is pragmatic: simpler integrations, enforceable risk controls, deterministic operations, and compliance-ready auditability—without betting the farm on any single chain.


The Problem Enterprises Actually Have (and Why Bridges Alone Didn’t Fix It)

Most enterprise teams don’t want to “pick a chain.” They want outcomes: settle a payment, issue an asset, clear a trade, or update a record—reliably, auditably, and at a predictable cost. The trouble is that production Web3 today is irredeemably multichain. Hundreds of rollups, appchains, and L2s have launched over the past 18 months alone, each with its own fees, finality times, tooling, and trust assumptions.

Traditional cross-chain approaches solved transport—moving tokens or messages from A to B—but not the experience. Teams are still forced to manage wallets per network, provision gas per chain, pick a bridge per route, and shoulder security differences they can’t easily quantify. That friction is the real adoption tax.

Cross-chain abstraction removes that tax by hiding chain selection and transport behind declarative APIs, intent-driven user experiences, and unified identity and gas. In other words, users and applications express what they want; the platform determines how and where it happens, safely. Chain abstraction makes blockchain technology invisible to end users while preserving its core benefits.

Why 2025 is Different: The Building Blocks Finally Clicked

The vision of a seamless multi-chain world isn't new, but the foundational technology is finally ready for production. Several key components have matured and converged, making robust chain abstraction possible.

  • Network-Level Unification: Projects are now building frameworks to make separate chains feel like a single, unified network. The OP Superchain aims to standardize OP-Stack L2s with shared tooling and communication layers. Polygon's AggLayer aggregates many ZK-secured chains with "pessimistic proofs" for chain-level accounting, preventing one chain’s issues from contaminating others. Meanwhile, IBC v2 is expanding standardized interoperability beyond the Cosmos ecosystem, pushing toward "IBC everywhere."

  • Mature Interop Rails: The middleware for cross-chain communication is now battle-tested and widely available. Chainlink CCIP offers enterprise-grade token and data transfer across a growing number of chains. LayerZero v2 provides omnichain messaging and standardized OFT tokens with a unified supply. Axelar delivers General Message Passing (GMP) for complex contract calls across ecosystems, connecting EVM and Cosmos chains. Platforms like Hyperlane enable permissionless deployments, allowing new chains to join the network without gatekeepers, while Wormhole offers a generalized messaging layer used across more than 40 chains.

  • Intent & Account Abstraction: The user experience has been transformed by two critical standards. ERC-7683 standardizes cross-chain intents, allowing apps to declare goals and let a shared solver network execute them efficiently across chains. Concurrently, EIP-4337 smart accounts, combined with Paymasters, enable gas abstraction. This allows an application to sponsor transaction fees or let users pay in stablecoins, which is essential for any flow that might touch multiple networks.

  • Native Stablecoin Mobility: Circle’s Cross-Chain Transfer Protocol (CCTP) moves native USDC across chains via a secure burn-and-mint process, reducing wrapped-asset risk and unifying liquidity. The latest version, CCTP v2, further cuts latency and simplifies developer workflows, making stablecoin settlement a seamless part of the abstracted experience.

What “Cross-Chain Abstraction” Looks Like in an Enterprise Stack

Think of it as a layered capability you can add to existing systems. The goal is to have a single endpoint to express an intent and a single policy plane to govern how it executes across any number of chains.

  1. Unified Identity & Policy: At the top layer are smart accounts (EIP-4337) with role-based access controls, social recovery, and modern custody options like passkeys or MPC. This is governed by a central policy engine that defines who can do what, where, using allow- and deny-lists for specific chains, assets, and bridges.

  2. Gas & Fee Abstraction: Paymasters remove the "I need native gas on chain X" headache. Users or services can pay fees in stablecoins, or the application can sponsor them entirely, subject to predefined policies and budgets.

  3. Intent-Driven Execution: Users express outcomes, not transactions. For example, "swap USDC for wETH and deliver it to our supplier's wallet on chain Y before 5 p.m." The ERC-7683 standard defines the format for these orders, allowing shared solver networks to compete to execute them safely and cheaply.

  4. Programmable Settlement & Messaging: Under the hood, the system uses a consistent API to select the right rail for each route. It might use CCIP for a token transfer where enterprise support is key, Axelar GMP for a cross-ecosystem contract call, or IBC where native light-client security fits the risk model.

  5. Observability & Compliance by Default: The entire workflow is traceable, from the initial intent to the final settlement. This produces clear audit trails and allows data to be exported to existing SIEMs. Risk frameworks can be programmed to enforce allowlists or trigger emergency brakes, for instance, by pausing routes if a bridge’s security posture degrades.

A Reference Architecture

From the top down, a chain-abstracted system is composed of clear layers:

  • Experience Layer: Application surfaces that collect user intents and completely hide chain details, paired with SSO-style smart account wallet flows.
  • Control Plane: A policy engine for managing permissions, quotas, and budgets. This plane integrates with KMS/HSM systems and maintains allowlists for chains, assets, and bridges. It also ingests risk feeds to circuit-break vulnerable routes automatically.
  • Execution Layer: An intent router that selects the best interop rail (CCIP, LayerZero, Axelar, etc.) based on policy, price, and latency requirements. A Paymaster handles fees, drawing from a treasury of pooled gas and stablecoin budgets.
  • Settlement & State: Canonical on-chain contracts for core functions like custody and issuance. A unified indexer tracks cross-chain events and proofs, exporting data to a warehouse or SIEM for analysis and compliance.

Build vs. Buy: How to Evaluate Providers of Chain Abstraction

When selecting a partner to provide chain abstraction capabilities, enterprises should ask several key questions:

  • Security & Trust Model: What are the underlying verification assumptions? Does the system rely on oracles, guardian sets, light clients, or validator networks? What can be slashed or vetoed?
  • Coverage & Neutrality: Which chains and assets are supported today? How quickly can new ones be added? Is the process permissionless or gated by the provider?
  • Standards Alignment: Does the platform support key standards like ERC-7683, EIP-4337, OFT, IBC, and CCIP?
  • Operations: What are the provider’s SLAs? How transparent are they about incidents? Do they offer replayable proofs, deterministic retries, and structured audit logs?
  • Governance & Portability: Can you switch interop rails per route without rewriting your application? Vendor-neutral abstractions are critical for long-term flexibility.
  • Compliance: What controls are available for data retention and residency? What is their SOC2/ISO posture? Can you bring your own KMS/HSM?

A Pragmatic 90-Day Enterprise Rollout

  • Days 0–15: Baseline & Policy: Inventory all chains, assets, bridges, and wallets currently in use. Define an initial allowlist and establish circuit-break rules based on a clear risk framework.
  • Days 16–45: Prototype: Convert a single user journey, such as a cross-chain payout, to use an intent-based flow with account abstraction and a paymaster. Measure the impact on user drop-off, latency, and support load.
  • Days 46–75: Expand Rails: Add a second interoperability rail to the system and route transactions dynamically based on policy. Integrate CCTP for native USDC mobility if stablecoins are part of the workflow.
  • Days 76–90: Harden: Wire the platform’s observability data to your SIEM, run chaos tests on route failures, and document all operating procedures, including emergency pause protocols.

Common Pitfalls (and How to Avoid Them)

  • Routing by "Gas Price Only": Latency, finality, and security assumptions matter as much as fees. Price alone is not a complete risk model.
  • Ignoring Gas: If your experience touches multiple chains, gas abstraction isn't optional—it's table stakes for a usable product.
  • Treating Bridges as Interchangeable: They aren’t. Their security assumptions differ significantly. Codify allowlists and implement circuit breakers to manage this risk.
  • Wrapped-Asset Sprawl: Whenever possible, prefer native asset mobility (like USDC via CCTP) to minimize liquidity fragmentation and reduce counterparty risk.

The Enterprise Upside

When chain abstraction is done well, blockchain stops being a collection of idiosyncratic networks and becomes an execution fabric your teams can program against. It offers policies, SLAs, and audit trails that match the standards you already operate under. Thanks to mature intent standards, account abstraction, robust interop rails, and native stablecoin transport, you can finally deliver Web3 outcomes without forcing users—or your own developers—to care about which chain did the work.

Ethereum's 2026 Roadmap: Stanczak's Push for 10x Scaling

· 23 min read
Dora Noda
Software Engineer

Ethereum is targeting 10x Layer 1 scaling by 2026, driven by Co-Executive Director Tomasz Stanczak's operational transformation of the Ethereum Foundation. The Glamsterdam hard fork, planned for mid-2026, will deliver Verkle Trees, enshrined Proposer-Builder Separation, and progressive gas limit increases to 150 million units—representing the most ambitious single-year upgrade in Ethereum's history. This isn't just technical evolution; it's a fundamental shift in how the Foundation operates, moving from long-term theorizing to aggressive six-month upgrade cycles under Stanczak's mandate to make Ethereum competitive now, not later.

Since becoming Co-Executive Director in March 2025 alongside Hsiao-Wei Wang, Stanczak has restructured the Foundation around three strategic pillars: scaling Ethereum mainnet, expanding blob capacity for Layer 2 growth, and dramatically improving user experience through unified cross-chain interactions. His background building Nethermind from a project to the third-largest Ethereum execution client, combined with Wall Street experience at Citibank's FX trading desk, positions him uniquely to bridge Ethereum's decentralized developer community with traditional financial institutions increasingly eyeing blockchain infrastructure. The 2026 roadmap reflects his operational philosophy: "no amount of talking about Ethereum's roadmap and vision matters if we cannot achieve coordination levels that consistently meet goals on schedule."

A Wall Street veteran reimagining Ethereum Foundation leadership

Tomasz Stanczak's journey from traditional finance to blockchain leadership shapes his approach to Ethereum's 2026 challenges. After building trading platforms at Citibank London (2011-2016) and discovering Ethereum at a London meetup in 2015, he founded Nethermind in 2017, growing it into one of Ethereum's top three execution clients—critical infrastructure that processed transactions during The Merge. This entrepreneurial success informs his Foundation leadership style: where predecessor Aya Miyaguchi focused on long-term research and hands-off coordination, Stanczak conducts over 200 stakeholder conversations, appears on major podcasts monthly, and publicly tracks upgrade timelines on social media.

His co-directorship with Wang divides responsibilities strategically. Wang stewards Ethereum's core principles—decentralization, censorship resistance, privacy—while Stanczak owns operational execution and timeline management. This structure aims to free Vitalik Buterin for deep research on single-slot finality and post-quantum cryptography rather than daily coordination. Stanczak explicitly states: "Following the recent changes in leadership at the Ethereum Foundation, we aimed, among other things, to free more of Vitalik's time for research and exploration, rather than day-to-day coordination or crisis response."

The organizational transformation includes empowering 40+ team leads with greater decision-making authority, restructuring developer calls toward product delivery rather than endless discussion, integrating application builders into early planning stages, and implementing dashboard tracking for measurable progress. In June 2025, Stanczak laid off 19 employees as part of streamlining efforts—controversial but consistent with his mandate to accelerate execution. He positions this urgency in market context: "The ecosystem called out. You're operating too disorganised, you need to operate a bit more centralised and way more accelerated to be there for this critical period."

Three strategic pillars define Ethereum's next 12 months

Stanczak and Wang outlined three core objectives in their April 2025 Foundation blog post "The Next Chapter," establishing the framework for 2026 deliverables.

Scaling Ethereum mainnet represents the primary technical focus. The current 30-45 million gas limit will increase to 150 million by Glamsterdam, enabling roughly 5x more transactions per block. This combines with stateless client capabilities via Verkle Trees, allowing nodes to verify blocks without storing Ethereum's entire 50+ GB state. Stanczak emphasizes this isn't just capacity expansion—it's making mainnet "a solid rock and nimble network" that institutions can trust with trillion-dollar contracts. The aggressive target emerged from extensive community consultation, with Vitalik Buterin noting that validators show roughly 50% support for immediate increases, providing social consensus for the technical roadmap.

Scaling blobs addresses Layer 2 ecosystem needs directly. Proto-danksharding launched in March 2024 with 3-6 blobs per block, each carrying 128 KB of rollup transaction data. By mid-2026, PeerDAS (Peer Data Availability Sampling) will enable 48 blobs per block—an 8x increase—by allowing validators to sample just 1/16th of blob data rather than downloading everything. Automated Blob Parameter Only hard forks will progressively increase capacity: 10-15 blobs by December 2025, 14-21 blobs by January 2026, then continued growth toward the 48-blob ceiling. This blob scaling directly translates to lower L2 transaction costs, with Layer 2 fees already down 70-95% post-Dencun and targeting further 50-70% reductions through 2026.

Improving user experience tackles Ethereum's fragmentation problem. With 55+ Layer 2 rollups holding $42 billion in liquidity but creating disjointed user experiences, the Ethereum Interoperability Layer launches Q1 2026 to "make Ethereum feel like one chain again." The Open Intents Framework enables users to declare desired outcomes—swap token X for token Y—while solvers handle the complex routing across chains invisibly. Meanwhile, the Fast Confirmation Rule reduces perceived finality from 13-19 minutes to 15-30 seconds, a 98% latency reduction that makes Ethereum competitive with traditional payment systems for the first time.

Glamsterdam upgrade represents 2026's pivotal technical milestone

The Glamsterdam hard fork, targeted for Q1-Q2 2026 approximately six months after the December 2025 Fusaka upgrade, packages the most significant protocol changes since The Merge. Stanczak repeatedly emphasizes timeline discipline, warning in August 2025: "Glamsterdam may be getting some attention (it is a fork for Q1/Q2 2026). In the meantime, we should be more concerned about any potential delays to Fusaka... I would love to see a broad agreement that the timelines matter a lot. A lot."

Enshrined Proposer-Builder Separation (EIP-7732) represents the upgrade's headline consensus layer change. Currently, block building occurs off-protocol through MEV-Boost, with three builders controlling roughly 75% of block production—a centralization risk. ePBS integrates PBS directly into Ethereum's protocol, eliminating trusted relays and enabling any entity to become a builder by staking requirements. Builders construct optimized blocks and bid for inclusion, validators select the highest bid, and attester committees verify commitments cryptographically. This provides an 8-second execution window (up from 2 seconds), enabling more sophisticated block construction while maintaining censorship resistance. However, ePBS introduces technical complexity including the "free option problem"—builders might withhold blocks after winning bids—requiring threshold encryption solutions still under development.

Fork-Choice enforced Inclusion Lists (FOCIL, EIP-7805) complements ePBS by preventing transaction censorship. Validator committees generate mandatory inclusion lists of transactions that builders must incorporate, ensuring users cannot be indefinitely censored even if builders coordinate to exclude specific addresses. Combined with ePBS, FOCIL creates what researchers call the "holy trinity" of censorship resistance (alongside future encrypted mempools), directly addressing regulatory concerns about blockchain neutrality.

Verkle Trees transition from Merkle Patricia Trees enables stateless clients, reducing proof sizes from roughly 1 KB to 150 bytes. This allows nodes to verify blocks without storing Ethereum's entire state, lowering hardware requirements dramatically and enabling lightweight verification. The full transition may extend into late 2026 or early 2027 given complexity, but partial implementation begins with Glamsterdam. Notably, debate continues about whether to complete Verkle Trees or skip directly to STARK-based proofs for quantum resistance—a decision that will clarify during 2026 based on Glamsterdam's performance.

Six-second slot times (EIP-7782) propose cutting block times from 12 to 6 seconds, halving confirmation latency across the board. This tightens DEX pricing mechanisms, reduces MEV opportunities, and improves user experience. However, it increases centralization pressure by requiring validators to process blocks twice as fast, potentially favoring professional operators with superior infrastructure. The proposal remains "draft phase" with uncertain inclusion in Glamsterdam, reflecting ongoing community debate about performance-decentralization tradeoffs.

Beyond these headliners, Glamsterdam packages numerous execution layer improvements: block-level access lists enabling parallelized validation, continuous gas limit increases (EIP-7935), history expiry reducing node storage requirements (EIP-4444), delayed execution for better resource allocation (EIP-7886), and potentially EVM Object Format bringing 16 EIPs for bytecode improvements. The scope represents what Stanczak calls the Foundation's shift from "ivory tower" research to pragmatic delivery.

Data availability sampling unlocks the path to 100,000+ TPS

While Glamsterdam delivers Layer 1 improvements, 2026's scaling story centers on blob capacity expansion through PeerDAS technology deployed in December 2025's Fusaka upgrade but maturing throughout 2026.

PeerDAS implements data availability sampling, a cryptographic technique allowing validators to verify blob data exists and is retrievable without downloading entire datasets. Each blob gets extended via erasure coding and divided into 128 columns. Individual validators sample just 8 of 128 columns (1/16th of data), and if enough validators collectively sample all columns with high probability, the data is confirmed available. KZG polynomial commitments prove each sample's validity cryptographically. This reduces bandwidth requirements by 90% while maintaining security guarantees.

The technical breakthrough enables aggressive blob scaling through automated Blob Parameter Only hard forks. Unlike traditional upgrades requiring months of coordination, BPO forks adjust blob counts based on network monitoring—essentially turning a dial rather than orchestrating a complex deployment. The Foundation targets 14-21 blobs by January 2026 via the second BPO fork, then progressive increases toward 48 blobs by mid-2026. At 48 blobs per block (approximately 2.6 MB per slot), Layer 2 rollups gain roughly 512 KB/second of data throughput, enabling 12,000+ TPS across the combined L2 ecosystem.

Stanczak frames this as essential infrastructure for Layer 2 success: "Ahead of us lies one year of scaling—scaling Ethereum mainnet (L1), supporting the success of L2 chains by providing them with the best architecture to scale, to secure their networks, and to bring confidence to their users." He shifted the narrative from viewing L2s as parasitic to positioning them as Ethereum's protective "moat," emphasizing that scaling comes before fee-sharing mechanisms.

Beyond 2026, research continues on FullDAS (led by Francesco D'Amato) exploring next-generation data availability with highly diverse participant sharding. Full Danksharding—the ultimate vision of 64 blobs per block enabling 100,000+ TPS—remains several years away, requiring 2D erasure coding and complete ePBS maturity. But 2026's PeerDAS deployment provides the foundation, with Stanczak emphasizing measured progress: careful scaling, extensive testing, and avoiding the destabilization that plagued earlier Ethereum transitions.

Layer 2 unification tackles Ethereum's fragmentation crisis

Ethereum's rollup-centric roadmap created a fragmentation problem: 55+ Layer 2 chains with $42 billion in liquidity but no standardized interoperability, forcing users to manually bridge assets, maintain separate wallets, and navigate incompatible interfaces. Stanczak identifies this as a critical 2026 priority: making Ethereum "feel like one chain again."

The Ethereum Interoperability Layer, designed publicly in October 2025 and implementing Q1 2026, provides trustless, censorship-resistant cross-chain infrastructure adhering to "CROPS values" (Censorship-Resistance, Open-source, Privacy, Security). Unlike centralized bridges or trusted intermediaries, EIL operates as a prescriptive execution layer where users specify exact transactions rather than declaring abstract intents that third parties fulfill opaquely. This maintains Ethereum's core philosophy while enabling seamless cross-L2 operations.

The Open Intents Framework forms EIL's technical foundation, with production-ready smart contracts already deployed. OIF uses a four-layer architecture: origination (where intents are created), fulfillment (solver execution), settlement (on-chain confirmation), and rebalancing (liquidity management). The framework is modular and lightweight, allowing different L2s to customize mechanisms—Dutch auctions, first-come-first-serve, or novel designs—while maintaining interoperability through common standards like ERC-7683. Major ecosystem players including Across, Arbitrum, Hyperlane, LI.FI, OpenZeppelin, Taiko, and Uniswap contributed to the specification.

Fast confirmation rules complement cross-chain improvements by addressing latency. Currently, strong transaction finality requires 64-95 slots (13-19 minutes), making cross-chain operations painfully slow. The Fast L1 Confirmation Rule, targeting Q1 2026 availability across all consensus clients, provides strong probabilistic confirmation in 15-30 seconds using accumulated attestations. This 98% latency reduction makes cross-chain swaps competitive with centralized exchanges for the first time. Stanczak emphasizes that perception matters: users experience transactions as "confirmed" when they see strong probabilistic security, even if cryptographic finality comes later.

For Layer 2 settlement improvements, zksettle mechanisms enable optimistic rollups to settle in hours rather than 7-day challenge windows by using ZK-proofs for faster validation. The "2-out-of-3" mechanism combines ZK-based real-time proving with traditional challenge periods, providing maximal user protection at minimal cost. These improvements integrate directly with OIF, reducing rebalancing costs for solvers and enabling cheaper fees for intent protocol users.

Quantifying 2026's performance revolution in concrete metrics

Stanczak's scaling targets translate to specific, measurable improvements across latency, throughput, cost, and decentralization dimensions.

Throughput scaling combines Layer 1 and Layer 2 gains. L1 capacity increases from 30-45 million gas to 150+ million gas, enabling roughly 50-100 TPS on mainnet (from current 15-30 TPS). Layer 2 rollups collectively scale from 1,000-2,000 TPS to 12,000+ TPS via blob expansion. Smart contract size limits double from 24 KB to 48 KB, enabling more complex applications. The combined effect: Ethereum's total transaction processing capability increases by roughly 6-12x during 2026, with potential for 100,000+ TPS as full Danksharding research matures post-2026.

Latency improvements fundamentally change user experience. Fast confirmation drops from 13-19 minutes to 15-30 seconds—a 98% reduction in perceived finality. If EIP-7782's 6-second slot times get approved, block inclusion times halve. Layer 2 settlement compression from 7 days to hours represents an 85-95% reduction. These changes make Ethereum competitive with traditional payment systems and centralized exchanges for user experience while maintaining decentralization and security.

Cost reductions cascade through the stack. Layer 2 gas fees already dropped 70-95% post-Dencun with proto-danksharding; further 50-80% blob fee reductions emerge as capacity scales to 48 blobs. Layer 1 gas costs potentially decrease 30-50% via gas limit increases spreading fixed validator costs across more transactions. Cross-chain bridging costs approach zero through EIL's trustless infrastructure. These reductions enable entirely new use cases—micropayments, gaming, social media onchain—previously uneconomical.

Decentralization metrics improve counterintuitively despite scaling. Verkle Trees reduce node storage requirements from 150+ GB to under 50 GB, lowering barriers to running validators. The increased maximum effective balance from 32 ETH to 2,048 ETH per validator (deployed in Pectra May 2025) enables institutional staking efficiency without requiring separate validator instances. ePBS eliminates trusted MEV-Boost relays, distributing block building opportunities more widely. The validator set could grow from roughly 1 million to 2 million validators during 2026 as barriers decrease.

Stanczak emphasizes that these aren't just technical achievements—they enable his vision of "10-20% of the global economy onchain, and it may happen faster than people think." The quantitative targets directly support qualitative goals: tokenized securities, stablecoin dominance, real-world asset markets, and AI agent coordination all require this performance baseline.

Account abstraction matures from research concept to mainstream feature

While scaling grabs headlines, user experience improvements through account abstraction represent equally transformative 2026 developments, directly addressing Ethereum's reputation for poor onboarding and complex wallet management.

ERC-4337, deployed March 2023 and maturing throughout 2024-2025, establishes smart contract wallets as first-class citizens. Rather than requiring users to manage private keys and pay gas in ETH, UserOperation objects flow through alternative mempools where bundlers aggregate transactions and paymasters sponsor fees. This enables gas payment in any ERC-20 token (USDC, DAI, project tokens), social recovery via trusted contacts, transaction batching for complex operations, and custom validation logic including multisig, passkeys, and biometric authentication.

EIP-7702, deployed in May 2025's Pectra upgrade, extends these benefits to existing Externally Owned Accounts. Through temporary code delegation, EOAs gain smart account features without migrating to new addresses—preserving transaction history, token holdings, and application integrations while accessing advanced functionality. Users can batch approval and swap operations into single transactions, delegate spending permissions temporarily, or implement time-locked security policies.

Stanczak personally tested wallet onboarding flows to identify friction points, bringing product-thinking from his Nethermind entrepreneurship. His emphasis: "We will focus on speed of execution, accountability, clear goals, objectives, and metrics to track" extends beyond protocol development to application-layer experience. The Foundation shifted from pure grants to actively connecting founders with resources, talent, and partners—infrastructure that supports account abstraction's mainstream adoption during 2026.

Privacy enhancements complement account abstraction through the Kohaku privacy wallet project, led by Nicolas Consigny and Vitalik Buterin, developing through 2026. Kohaku provides SDK exposing privacy and security primitives—native private balances, private addresses, Helios light client integration—with a power-user browser extension demonstrating capabilities. The four-layer privacy model addresses private payments (integrated privacy tools like Railgun), partial dApp activity obscuring (separate addresses per application), hidden read-access (TEE-based RPC privacy transitioning to Private Information Retrieval), and network-level anonymization. These capabilities position Ethereum for institutional compliance requirements while maintaining censorship resistance—a balance Stanczak identifies as critical for "winning RWA and stables."

Operational transformation reflects lessons from traditional finance and startups

Stanczak's leadership style derives directly from Wall Street and entrepreneurial experience, contrasting sharply with Ethereum's historically academic, consensus-driven culture.

His restructuring establishes clear accountability. The 40+ team leads model distributes decision-making authority rather than bottlenecking through central committees, mirroring how trading desks operate autonomously within risk parameters. Developer calls shifted focus from endless specification discussions to shipping current testnets, with fewer future fork calls until present work completes. This parallels agile methodologies from software startups: tight iteration cycles, concrete deliverables, public tracking.

The six-month upgrade cadence itself represents dramatic acceleration. Ethereum historically launched major upgrades every 12-18 months, with frequent delays. Stanczak targets Pectra (May 2025), Fusaka (December 2025), and Glamsterdam (Q1-Q2 2026)—three significant upgrades in 12 months. His public statements emphasize timeline discipline: "I know that some extremely talented people are now working on resolving the issues that caused teams to suggest moving the dates. I would love to see a broad agreement that the timelines matter a lot. A lot." This urgency acknowledges competitive pressure from Solana, Aptos, and other chains shipping features faster.

The Foundation's communication strategy transformed from infrequent blog posts to active social media engagement, conference appearances (Devcon, Token 2049, Paris Blockchain Week, Point Zero Forum), podcast circuits (Bankless, Unchained, The Defiant), and direct institutional outreach. Stanczak conducted over 200 conversations with ecosystem stakeholders during his first months, treating Co-Executive Director as a customer-facing role rather than pure technical leadership. This accessibility mirrors startup founder patterns—constantly in market, gathering feedback, adjusting strategy.

However, his dual role as Ethereum Foundation Co-Executive Director and Nethermind founder creates ongoing controversy. Nethermind remains the third-largest Ethereum execution client, and critics question whether Stanczak can fairly allocate Foundation grants to competing clients like Geth, Besu, and Erigon. A June 2025 conflict with Péter Szilágyi (Geth lead) over Foundation-funded Geth fork development highlighted these tensions. Stanczak maintains he's transitioning out of Nethermind's CEO role but retains significant involvement, requiring careful navigation of perceived conflicts.

The layoffs of 19 employees in June 2025 proved equally controversial in a community valuing decentralization and collective decision-making. Stanczak frames this as necessary streamlining, implementing "more hands-on hiring review process" and focusing resources on execution-critical teams. The move signals that Foundation leadership now prioritizes operational efficiency over consensus-building, accepting criticism as the cost of faster delivery.

Single-slot finality and quantum resistance remain active research beyond 2026

While 2026 focuses on deliverable upgrades, Stanczak emphasizes the Foundation's continued commitment to long-term protocol evolution, explicitly positioning near-term execution within broader strategic context.

Single-slot finality research aims to reduce Ethereum's current 12.8-minute finality (64 slots across 2 epochs) to 12 seconds—finalizing blocks in the same slot they're proposed. This eliminates short-range reorganization vulnerability and simplifies the complex fork-choice/finality interface. However, achieving SSF with 1-2 million validators requires processing massive attestations per slot. Proposed solutions include brute-force BLS signature aggregation using ZK-SNARKs, Orbit SSF with validator sub-sampling, and two-tiered staking systems separating high-stake validators from broader participation.

Intermediate solutions deploy during 2026. The Fast Confirmation Rule provides 15-30 second strong probabilistic security using accumulated attestations—not technically finality but achieving 98% latency reduction for user experience. Research tracks including 3-Slot Finality (3SF) and alternative consensus protocols (Kudzu, Hydrangea, Alpenglow) continue exploration, led by Francesco D'Amato, Luca Zanolini, and EF Protocol Consensus team. Stanczak's operational changes deliberately free Vitalik Buterin to focus on this deep research rather than daily coordination: "Vitalik's proposals will always carry weight, but they are intended to start conversations and encourage progress in difficult research areas."

Verkle Trees versus STARKs represents another long-term decision point. Verkle Trees deploy partially in 2026 for stateless clients, reducing proof sizes and enabling lightweight verification. However, Verkle's polynomial commitments are vulnerable to quantum computing attacks, while STARK-based proofs provide quantum resistance. The community debates whether completing Verkle Trees then migrating to STARKs adds unnecessary complexity versus skipping directly to STARKs. Stanczak's pragmatism suggests shipping Verkle Trees for near-term benefits while monitoring quantum computing progress and STARK-proof performance, maintaining optionality.

Beam Chain and "Ethereum 3.0" discussions explore comprehensive consensus layer redesign incorporating lessons from years of proof-of-stake operation. These conversations remain speculative but inform incremental improvements during 2026. Stanczak's "secondary roadmap" posted in April 2025 outlines aspirational goals beyond core protocol work: winning real-world assets, dominating stablecoin infrastructure, greatly increasing security expectations for "quadrillion economy" scale, and positioning Ethereum for AI/agentic protocol integration as "long term which will be so cool that it will attract the greatest thinkers over long time."

This balance—aggressive near-term execution while funding long-term research—defines Stanczak's approach. He repeatedly emphasizes that Ethereum must deliver now to maintain ecosystem momentum, but not at the cost of foundational principles. His April 2025 blog post with Wang states: "The values remain unchanged: open source, censorship resistance, privacy, and security... Ethereum mainnet will remain a global, neutral network, a protocol trusted to be trustless."

Stanczak's background in traditional finance uniquely positions him to engage institutions exploring blockchain infrastructure, but this creates tension with Ethereum's cypherpunk roots.

His European institutional tour in April 2025, direct engagement with financial services firms, and emphasis on being "face of the organization" represent departure from Ethereum's historically faceless, community-driven ethos. He acknowledges this explicitly: "Institutions need someone to be the face of the organisation that is representing Ethereum." This positioning responds to competitive dynamics—Solana, Ripple, and other chains have centralized leadership structures institutions understand. Stanczak argues Ethereum needs similar interfaces without abandoning decentralization.

The Foundation's strategic priorities reflect this institutional focus: "Win RWA (Real World Assets), Win stables (stablecoins)" appear prominently in Stanczak's secondary roadmap. Real-world asset tokenization—equities, bonds, real estate, commodities—requires performance, compliance capabilities, and institutional-grade security Ethereum historically lacked. Stablecoin dominance, with USDC and USDT representing massive onchain value, positions Ethereum as settlement layer for global finance. Stanczak frames this as existential: "Suddenly you have 10% or 20% of the whole economy onchain. It may happen faster than people think."

His "Trillion Dollar Security" initiative envisions infrastructure where billions of people hold $1,000+ onchain securely, and institutions trust single smart contracts with $1 trillion. This requires not just technical scaling but security standards, auditing practices, incident response capabilities, and regulatory clarity Ethereum's decentralized development process struggles to provide. Stanczak's operational changes—clear leadership, accountability, public tracking—aim to demonstrate Ethereum can deliver institutional-grade reliability while maintaining neutrality.

Critics worry this institutional focus could compromise censorship resistance. Stanczak's response emphasizes technical solutions: ePBS eliminates trusted relays that could be pressured to censor transactions, FOCIL ensures inclusion lists prevent indefinite censorship, encrypted mempools hide transaction contents until inclusion. The "holy trinity" of censorship resistance protects Ethereum's neutrality even as institutions adopt the platform. He states: "The focus is now on interoperability, tools and standards that can bring more cohesion to the Ethereum network—without compromising its core principles, such as decentralization and neutrality."

The tension remains unresolved. Stanczak's dual role at Nethermind, close institutional relationships, and emphasis on centralized execution for "critical period" acceleration represent pragmatic adaptation to competitive pressures. Whether this compromises Ethereum's founding values or successfully bridges decentralization with mainstream adoption will become clear through 2026's execution.

2026 marks a definitive test of Ethereum's scaling promises

Ethereum enters 2026 at an inflection point. After years of research, specification, and delayed timelines, the Glamsterdam upgrade represents a concrete commitment: deliver 10x scaling, deploy ePBS and FOCIL, enable stateless clients, unify Layer 2 fragmentation, and achieve 15-30 second confirmations—all while maintaining decentralization and security. Stanczak's leadership transformation provides the operational structure to execute this roadmap, but success requires coordinating 23+ client teams, managing complex protocol changes, and shipping on aggressive six-month cycles without destabilizing the $300+ billion network.

The quantitative targets are explicit and measurable. Gas limits must reach 150 million or higher. Blob capacity must scale to 48 blobs per block through automated BPO forks. Fast confirmation rules must deploy across all consensus clients by Q1 2026. EIL must unify 55+ Layer 2s into seamless user experience. Glamsterdam must activate mid-2026 without significant delays. Stanczak stakes his credibility and the Foundation's reputation on meeting these deadlines: "no amount of talking about Ethereum's roadmap and vision matters if we cannot achieve coordination levels that consistently meet goals on schedule."

His vision extends beyond technical metrics to ecosystem transformation. Institutional adoption of tokenized assets, stablecoin infrastructure dominance, AI agent coordination, and autonomous machine integration all require the performance baseline 2026 delivers. The shift from Ethereum as "world computer" research project to Ethereum as global financial infrastructure reflects Stanczak's Wall Street perspective—systems must work reliably at scale, with clear accountability and measurable results.

The operational changes—accelerated timelines, empowered team leads, public tracking, institutional engagement—represent permanent cultural shift, not temporary response to competitive pressure. Stanczak and Wang's co-directorship model balances execution urgency with values preservation, but the emphasis clearly lies on delivery. The community's acceptance of this more centralized coordination structure, the June 2025 layoffs, and aggressive deadlines indicates broad recognition that Ethereum must evolve or lose market position to faster-moving competitors.

Whether 2026 validates or undermines this approach depends on execution. If Glamsterdam ships on time with promised improvements, Ethereum cements its position as the dominant smart contract platform, and Stanczak's operational model becomes the template for decentralized protocol governance at scale. If delays occur, complexity overwhelms client teams, or security issues emerge from rushed deployment, the community will question whether speed was prioritized over the careful, conservative approach that made Ethereum secure for a decade. Stanczak's repeated warnings about timeline discipline suggest he understands these stakes completely—2026 is the year Ethereum must deliver, not plan, not research, but ship working infrastructure that scales.

The technical roadmap is comprehensive, the leadership committed, and the ecosystem aligned behind these goals. Stanczak brings unique capabilities from traditional finance, client implementation, and entrepreneurial success to marshal resources toward concrete objectives. His vision of Ethereum processing 10-20% of global economic activity onchain within years, not decades, provides ambitious North Star. The 2026 roadmap represents the first major test of whether that vision can materialize through disciplined execution rather than remaining perpetual future promise. As Stanczak emphasizes: "People say we need the Foundation now." The next 12 months will demonstrate whether Ethereum Foundation's operational transformation can deliver on that urgent demand while maintaining the credible neutrality, censorship resistance, and open development that define Ethereum's foundational principles.

Sui Blockchain: Engineering the Future of AI, Robotics, and Quantum Computing

· 22 min read
Dora Noda
Software Engineer

Sui blockchain has emerged as the most technically advanced platform for next-generation computational workloads, achieving 297,000 transactions per second with 480ms finality while integrating quantum-resistant cryptography and purpose-built robotics infrastructure. Led by Chief Cryptographer Kostas Chalkias—who has 50+ academic publications and pioneered cryptographic innovations at Meta's Diem project—Sui represents a fundamental architectural departure from legacy blockchains, designed specifically to enable autonomous AI agents, multi-robot coordination, and post-quantum security.

Unlike competitors retrofitting blockchain for advanced computing, Sui's object-centric data model, Move programming language, and Mysticeti consensus protocol were engineered from inception for parallel AI operations, real-time robotics control, and cryptographic agility—capabilities validated through live deployments including 50+ AI projects, multi-robot collaboration demonstrations, and the world's first backward-compatible quantum-safe upgrade path for blockchain wallets.

Sui's revolutionary technical foundation enables the impossible

Sui's architecture breaks from traditional account-based blockchain models through three synergistic innovations that uniquely position it for AI, robotics, and quantum applications.

The Mysticeti consensus protocol achieves unprecedented performance through uncertified DAG architecture, reducing consensus latency to 390-650ms (80% faster than its predecessor) while supporting 200,000+ TPS sustained throughput. This represents a fundamental breakthrough: traditional blockchains like Ethereum require 12-15 seconds for finality, while Sui's fast path for single-owner transactions completes in just 250ms. The protocol's multiple leaders per round and implicit commitment mechanism enable real-time AI decision loops and robotics control systems requiring sub-second feedback—applications physically impossible on sequential execution chains.

The object-centric data model treats every asset as an independently addressable object with explicit ownership and versioning, enabling static dependency analysis before execution. This architectural choice eliminates retroactive conflict detection overhead plaguing optimistic execution models, allowing thousands of AI agents to transact simultaneously without contention. Objects bypass consensus entirely when owned by single parties, saving 70% processing time for common operations. For robotics, this means individual robots maintain owned objects for sensor data while coordinating through shared objects only when necessary—precisely mirroring real-world autonomous system architectures.

Move programming language provides resource-oriented security impossible in account-based languages like Solidity. Assets exist as first-class types that cannot be copied or destroyed—only moved between contexts—preventing entire vulnerability classes including reentrancy attacks, double-spending, and unauthorized asset manipulation. Move's linear type system and formal verification support make it particularly suitable for AI agents managing valuable assets autonomously. Programmable Transaction Blocks compose up to 1,024 function calls atomically, enabling complex multi-step AI workflows with guaranteed consistency.

Kostas Chalkias architects quantum resistance as competitive advantage

Kostas "Kryptos" Chalkias brings unparalleled cryptographic expertise to Sui's quantum computing strategy, having authored the Blockchained Post-Quantum Signature (BPQS) algorithm, led cryptography for Meta's Diem blockchain, and published 50+ peer-reviewed papers cited 1,374+ times. His July 2025 research breakthrough demonstrated the first backward-compatible quantum-safe upgrade path for blockchain wallets, applicable to EdDSA-based chains including Sui, Solana, Near, and Cosmos.

Chalkias's vision positions quantum resistance not as distant concern but immediate competitive differentiator. He warned in January 2025 that "governments are well aware of the risks posed by quantum computing. Agencies worldwide have issued mandates that classical algorithms like ECDSA and RSA must be deprecated by 2030 or 2035." His technical insight: even if users retain private keys, they may be unable to generate post-quantum proofs of ownership without exposing keys to quantum attacks. Sui's solution leverages zero-knowledge STARK proofs to prove knowledge of key generation seeds without revealing sensitive data—a cryptographic innovation impossible on blockchains lacking built-in agility.

The cryptographic agility framework represents Chalkias's signature design philosophy. Sui uses 1-byte flags to distinguish signature schemes (Ed25519, ECDSA Secp256k1/r1, BLS12-381, multisig, zkLogin), enabling protocol-level support for new algorithms without smart contract overhead or hard forks. This architecture allows "flip of a button" transitions to NIST-standardized post-quantum algorithms including CRYSTALS-Dilithium (2,420-byte signatures) and FALCON (666-byte signatures) when quantum threats materialize. Chalkias architected multiple migration paths: proactive (new accounts generate PQ keys at creation), adaptive (STARK proofs enable PQ migration from existing seeds), and hybrid (time-limited multisig combining classical and quantum-resistant keys).

His zkLogin innovation demonstrates cryptographic creativity applied to usability. The system enables users to authenticate via Google, Facebook, or Twitch credentials using Groth16 zero-knowledge proofs over BN254 curves, with user-controlled salt preventing Web2-Web3 identity correlation. zkLogin addresses include quantum considerations from design—the STARK-based seed knowledge proofs provide post-quantum security even when underlying JWT signatures transition from RSA to lattice-based alternatives.

At Sui Basecamp 2025, Chalkias unveiled native verifiable randomness, zk tunnels for off-chain logic, lightning transactions (zero-gas, zero-latency), and time capsules for encrypted future data access. These features power private AI agent simulations, gambling applications requiring trusted randomness, and zero-knowledge poker games—all impossible without protocol-level cryptographic primitives. His vision: "A goal for Sui was to become the first blockchain to adopt post-quantum technologies, thereby improving security and preparing for future regulatory standards."

AI agent infrastructure reaches production maturity on Sui

Sui hosts the blockchain industry's most comprehensive AI agent ecosystem with 50+ projects spanning infrastructure, frameworks, and applications—all leveraging Sui's parallel execution and sub-second finality for real-time autonomous operations.

Atoma Network launched on Sui mainnet in December 2024 as the first fully decentralized AI inference layer, positioning itself as the "decentralized hyperscaler for open-source AI." All processing occurs in Trusted Execution Environments (TEEs) ensuring complete privacy and censorship resistance while maintaining API compatibility with OpenAI endpoints. The Utopia chat application demonstrates production-ready privacy-preserving AI with performance matching ChatGPT, settling payments and validation through Sui's sub-second finality. Atoma enables DeFi portfolio management, social media content moderation, and personal assistant applications—use cases requiring both AI intelligence and blockchain settlement impossible to achieve on slower chains.

OpenGraph Labs achieved a technical breakthrough as the first fully on-chain AI inference system designed specifically for AI agents. Their TensorflowSui SDK automates deployment of Web2 ML models (TensorFlow, PyTorch) onto Sui blockchain, storing training data on Walrus decentralized storage while executing inferences using Programmable Transaction Blocks. OpenGraph provides three flexible inference approaches: PTB inference for critical computations requiring atomicity, split transactions for cost optimization, and hybrid combinations customized per use case. This architecture eliminates "black box" AI risks through fully verifiable, auditable inference processes with clearly defined algorithmic ownership—critical for regulated industries requiring explainable AI.

Talus Network launched on Sui in February 2025 with the Nexus framework enabling developers to build composable AI agents executing workflows directly on-chain. Talus's Idol.fun platform demonstrates consumer-facing AI agents as tokenized entities operating autonomously 24/7, making real-time decisions leveraging Walrus-stored datasets for market sentiment, DeFi statistics, and social trends. Example applications include dynamic NFT profile management, DeFi liquidity strategy agents loading models in real-time, and fraud detection agents analyzing historical transaction patterns from immutable Sui checkpoints.

The Alibaba Cloud partnership announced in August 2025 integrated AI coding assistants into ChainIDE development platform with multi-language support (English, Chinese, Korean). Features include natural language to Move code generation, intelligent autocompletion, real-time security vulnerability detection, and automated documentation generation—lowering barriers for 60% of Sui's non-English-speaking developer target. This partnership validates Sui's positioning as the AI development platform, not merely an AI deployment platform.

Sui's sponsored transactions eliminate gas payment friction for AI agents—builders can cover transaction fees allowing agents to operate without holding SUI tokens. The MIST denomination (1 SUI = 1 billion MIST) enables micropayments as small as fractions of a cent, perfect for pay-per-inference AI services. With average transaction costs around $0.0023, AI agents can execute thousands of operations daily for pennies, making autonomous agent economies economically viable.

Multi-robot collaboration proves Sui's real-time coordination advantage

Sui demonstrated the blockchain industry's first multi-robot collaboration system using Mysticeti consensus, validated by Tiger Research's comprehensive 2025 analysis. The system enables robots to share consistent state in distributed environments while maintaining Byzantine Fault Tolerance—ensuring consensus even when robots malfunction or are compromised by adversaries.

The technical architecture leverages Sui's object model where robots exist as programmable objects with metadata, ownership, and capabilities. Tasks get assigned to specific robot objects with smart contracts automating sequencing and resource allocation rules. The system maintains reliability without central servers, with parallel block proposals from multiple validators preventing single points of failure. Sub-second transaction finality enables real-time adjustment loops—robots receive task confirmations and state updates in under 400ms, matching control system requirements for responsive autonomous operation.

Physical testing with dog-like robots already demonstrated feasibility, with teams from NASA, Meta, and Uber backgrounds developing Sui-based robotics applications. Sui's unique "internetless mode" capability—operating via radio waves without stable internet connectivity—provides revolutionary advantages for rural deployments in Africa, rural Asia, and emergency scenarios. This offline capability exists exclusively on Sui among major blockchains, validated by testing during Spain/Portugal power outages.

The 3DOS partnership announced in September 2024 validates Sui's manufacturing robotics capabilities at scale. 3DOS integrated 79,909+ 3D printers across 120+ countries as Sui's exclusive blockchain partner, creating an "Uber for 3D printing" network enabling peer-to-peer manufacturing. Notable clients include John Deere, Google, MIT, Harvard, Bosch, British Army, US Navy, US Air Force, and NASA—demonstrating enterprise-grade trust in Sui's infrastructure. The system enables robots to autonomously order and print replacement parts through smart contract automation, facilitating robot self-repair with near-zero human intervention. This addresses the $15.6 trillion global manufacturing market through on-demand production eliminating inventory, waste, and international shipping.

Sui's Byzantine Fault Tolerance proves critical for safety-critical robotics applications. The consensus mechanism tolerates up to f faulty/malicious robots in a 3f+1 system, ensuring autonomous vehicle fleets, warehouse robots, and manufacturing systems maintain coordination despite individual failures. Smart contracts enforce safety constraints and operating boundaries, with immutable audit trails providing accountability for autonomous decisions—requirements impossible to meet with centralized coordination servers vulnerable to single points of failure.

Quantum resistance roadmap delivers cryptographic superiority

Sui's quantum computing strategy represents the blockchain industry's only comprehensive, proactive approach aligned with NIST mandates requiring classical algorithm deprecation by 2030 and full quantum-resistant standardization by 2035.

Chalkias's July 2025 breakthrough research demonstrated that EdDSA-based chains including Sui can implement quantum-safe wallet upgrades without hard forks, address changes, or account freezing through zero-knowledge proofs proving seed knowledge. This enables secure migration even for dormant accounts—solving the existential threat facing blockchains where millions of wallets "could be drained instantly" once quantum computers arrive. The technical innovation uses STARK proofs (quantum-resistant hash-based security) to prove knowledge of EdDSA key generation seeds without exposing sensitive data, allowing users to establish PQ key ownership tied to existing addresses.

Sui's cryptographic agility architecture enables multiple transition strategies: proactive (PQ keys sign PreQ public keys at creation), adaptive (STARK proofs migrate existing addresses), and hybrid (time-limited multisig with both classical and PQ keys). The protocol supports immediate deployment of NIST-standardized algorithms including CRYSTALS-Dilithium (ML-DSA), FALCON (FN-DSA), and SPHINCS+ (SLH-DSA) for lattice-based and hash-based post-quantum security. Validator BLS signatures transition to lattice-based alternatives, hash functions upgrade from 256-bit to 384-bit outputs for quantum-resistant collision resistance, and zkLogin circuits migrate from Groth16 to STARK-based zero-knowledge proofs.

The Nautilus framework launched in June 2025 provides secure off-chain computation using self-managed TEEs (Trusted Execution Environments), currently supporting AWS Nitro Enclaves with future Intel TDX and AMD SEV compatibility. For AI applications, Nautilus enables private AI inference with cryptographic attestations verified on-chain, solving the tension between computational efficiency and verifiability. Launch partners including Bluefin (TEE-based order matching at \u003c1ms), TensorBlock (AI agent infrastructure), and OpenGradient demonstrate production readiness for privacy-preserving quantum-resistant computation.

Comparative analysis reveals Sui's quantum advantage: Ethereum remains in planning phase with Vitalik Buterin stating quantum resistance is "at least a decade away," requiring hard forks and community consensus. Solana launched Winternitz Vault in January 2025 as an optional hash-based signature feature requiring user opt-in, not protocol-wide implementation. Other major blockchains (Aptos, Avalanche, Polkadot) remain in research phase without concrete implementation timelines. Only Sui designed cryptographic agility as a foundational principle enabling rapid algorithm transitions without governance battles or network splits.

Technical architecture synthesis creates emergent capabilities

Sui's architectural components interact synergistically to create capabilities exceeding the sum of individual features—a characteristic distinguishing truly innovative platforms from incremental improvements.

The Move language resource model combined with parallel object execution enables unprecedented throughput for AI agent swarms. Traditional blockchains using account-based models require sequential execution to prevent race conditions, limiting AI agent coordination to single-threaded bottlenecks. Sui's explicit dependency declaration through object references allows validators to identify independent operations before execution, scheduling thousands of AI agent transactions simultaneously across CPU cores. This state access parallelization (versus optimistic execution requiring conflict detection) provides predictable performance without retroactive transaction failures—critical for AI systems requiring reliability guarantees.

Programmable Transaction Blocks amplify Move's composability by enabling up to 1,024 heterogeneous function calls in atomic transactions. AI agents can execute complex workflows—swap tokens, update oracle data, trigger machine learning inference, mint NFTs, send notifications—all guaranteed to succeed or fail together. This heterogeneous composition moves logic from smart contracts to transaction level, dramatically reducing gas costs while increasing flexibility. For robotics, PTBs enable atomic multi-step operations like "check inventory, order parts, authorize payment, update status" with cryptographic guarantees of consistency.

The consensus bypass fast path for single-owner objects creates a two-tier performance model perfectly matching AI/robotics access patterns. Individual robots maintain private state (sensor readings, operational parameters) as owned objects processed in 250ms without validator consensus. Coordination points (task queues, resource pools) exist as shared objects requiring 390ms consensus. This architecture mirrors real-world autonomous systems where agents maintain local state but coordinate through shared resources—Sui's object model provides blockchain-native primitives matching these patterns naturally.

zkLogin solves the onboarding friction preventing mainstream AI agent adoption. Traditional blockchain requires users to manage seed phrases and private keys—cognitively demanding and error-prone. zkLogin enables authentication via familiar OAuth credentials (Google, Facebook, Twitch) with user-controlled salt preventing Web2-Web3 identity correlation. AI agents can operate under Web2 authentication while maintaining blockchain security, dramatically lowering barriers for consumer applications. The 10+ dApps already integrating zkLogin demonstrate practical viability for non-crypto-native audiences.

Competitive positioning reveals technical leadership and ecosystem growth

Comparative analysis across major blockchains (Solana, Ethereum, Aptos, Avalanche, Polkadot) reveals Sui's technical superiority for advanced computing workloads balanced against Ethereum's ecosystem maturity and Solana's current DePIN adoption.

Performance metrics establish Sui as the throughput leader with 297,000 TPS tested on 100 validators maintaining 480ms finality, versus Solana's 65,000-107,000 TPS theoretical (3,000-4,000 sustained) and Ethereum's 15-30 TPS base layer. Aptos achieves 160,000 TPS theoretical with similar Move-based architecture but different execution models. For AI workloads requiring real-time decisions, Sui's 480ms finality enables immediate response loops impossible on Ethereum's 12-15 minute finality or even Solana's occasional network congestion (75% transaction failures in April 2024 during peak load).

Quantum resistance analysis shows Sui as the only blockchain with quantum-resistant cryptography designed into core architecture from inception. Ethereum addresses quantum in "The Splurge" roadmap phase but Vitalik Buterin estimates 20% probability quantum breaks crypto by 2030, relying on emergency "recovery fork" plans reactive rather than proactive. Solana's Winternitz Vault provides optional quantum protection requiring user opt-in, not automatic network-wide security. Aptos, Avalanche, and Polkadot remain in research phase without concrete timelines. Sui's cryptographic agility with multiple migration paths, STARK-based zkLogin, and NIST-aligned roadmap positions it as the only blockchain ready for mandated 2030/2035 post-quantum transitions.

AI agent ecosystems show Solana currently leading adoption with mature tooling (SendAI Agent Kit, ElizaOS) and largest developer community, but Sui demonstrates superior technical capability through 300,000 TPS capacity, sub-second latency, and 50+ projects including production platforms (Atoma mainnet, Talus Nexus, OpenGraph on-chain inference). Ethereum focuses on institutional AI standards (ERC-8004 for AI identity/trust) but 15-30 TPS base layer limits real-time AI applications to Layer 2 solutions. The Alibaba Cloud partnership positioning Sui as the AI development platform (not merely deployment platform) signals strategic differentiation from pure financial blockchains.

Robotics capabilities exist exclusively on Sui among major blockchains. No competitor demonstrates multi-robot collaboration infrastructure, Byzantine Fault Tolerant coordination, or "internetless mode" offline operation. Tiger Research's analysis concludes "blockchain may be more suitable infrastructure for robots than for humans" given robots' ability to leverage decentralized coordination without centralized trust. With Morgan Stanley projecting 1 billion humanoid robots by 2050, Sui's purpose-built robotics infrastructure creates first-mover advantage in the emerging robot economy where autonomous systems require identity, payments, contracts, and coordination—primitives Sui provides natively.

Move programming language advantages position both Sui and Aptos above Solidity-based chains for complex applications requiring security. Move's resource-oriented model prevents vulnerability classes impossible to fix in Solidity, evidenced by $1.1+ billion lost to exploits in 2024 on Ethereum. Formal verification support, linear type system, and first-class asset abstractions make Move particularly suitable for AI agents managing valuable assets autonomously. Sui Move's object-centric variant (versus account-based Diem Move) enables parallel execution advantages unavailable on Aptos despite shared language heritage.

Real-world implementations validate technical capabilities

Sui's production deployments demonstrate the platform transitioning from technical potential to practical utility across AI, robotics, and quantum domains.

AI infrastructure maturity shows clear traction with Atoma Network's December 2024 mainnet launch serving production AI inference, Talus's February 2025 Nexus framework deployment enabling composable agent workflows, and Swarm Network's $13 million funding round backed by Kostas Chalkias selling 10,000+ AI Agent Licenses on Sui. The Alibaba Cloud partnership provides enterprise-grade validation with AI coding assistants integrated into developer tooling, demonstrating strategic commitment beyond speculative applications. OpenGraph Labs winning first place at Sui AI Typhoon Hackathon with on-chain ML inference signals technical innovation recognized by expert judges.

Manufacturing robotics reached commercial scale through 3DOS's 79,909-printer network across 120+ countries serving NASA, US Navy, US Air Force, John Deere, and Google. This represents the largest blockchain-integrated manufacturing network globally, processing 4.2+ million parts with 500,000+ users. The peer-to-peer model enabling robots to autonomously order replacement parts demonstrates smart contract automation eliminating coordination overhead at industrial scale—proof of concept validated by demanding government and aerospace clients requiring reliability and security.

Financial metrics show growing adoption with $538 million TVL, 17.6 million monthly active wallets (February 2025 peak), and SUI token market cap exceeding $16 billion. Mysten Labs achieved $3+ billion valuation backed by a16z, Binance Labs, Coinbase Ventures, and Jump Crypto—institutional validation of technical potential. Swiss banks (Sygnum, Amina Bank) offering Sui custody and trading provides traditional finance onramps, while Grayscale, Franklin Templeton, and VanEck institutional products signal mainstream recognition.

Developer ecosystem growth demonstrates sustainability with comprehensive tooling (TypeScript, Rust, Python, Swift, Dart, Golang SDKs), AI coding assistants in ChainIDE, and active hackathon programs where 50% of winners focused on AI applications. The 122 active validators on mainnet provide adequate decentralization while maintaining performance, balancing security with throughput better than highly centralized alternatives.

Strategic vision positions Sui for convergence era

Kostas Chalkias and Mysten Labs leadership articulate a coherent long-term vision distinguishing Sui from competitors focused on narrow use cases or iterative improvements.

Chalkias's bold prediction that "eventually, blockchain will surpass even Visa for speed of transaction. It will be the norm. I don't see how we can escape from this" signals confidence in technical trajectory backed by architectural decisions enabling that future. His statement that Mysten Labs "could surpass what Apple is today" reflects ambition grounded in building foundational infrastructure for next-generation computing rather than incremental DeFi applications. The decision to name his son "Kryptos" (Greek for "secret/hidden") symbolizes personal commitment to cryptographic innovation as civilizational infrastructure.

The three-pillar strategy integrating AI, robotics, and quantum computing creates mutually reinforcing advantages. Quantum-resistant cryptography enables long-term asset security for AI agents operating autonomously. Sub-second finality supports real-time robotics control loops. Parallel execution allows thousands of AI agents coordinating simultaneously. The object model provides natural abstraction for both AI agent state and robot device representation. This architectural coherence distinguishes purposeful platform design from bolted-on features.

Sui Basecamp 2025 technology unveils demonstrate continuous innovation with native verifiable randomness (eliminates oracle dependencies for AI inference), zk tunnels enabling private video calls directly on Sui, lightning transactions for zero-gas operations during emergencies, and time capsules for encrypted future data access. These features address real user problems (privacy, reliability, accessibility) rather than academic exercises, with clear applications for AI agents requiring trusted randomness, robotics systems needing offline operation, and quantum-resistant encryption for sensitive data.

The positioning as "coordination layer for wide range of applications" from healthcare data management to personal data ownership to robotics reflects platform ambitions beyond financial speculation. Chalkias's identification of healthcare data inefficiency as problem requiring common database showcases thinking about societal infrastructure rather than narrow blockchain enthusiast niches. This vision attracts research labs, hardware startups, and governments—audiences seeking reliable infrastructure for long-term projects, not speculative yield farming.

Technical roadmap delivers actionable execution timeline

Sui's development roadmap provides concrete milestones demonstrating progression from vision to implementation across all three focus domains.

Quantum resistance timeline aligns with NIST mandates: 2025-2027 completes cryptographic agility infrastructure and testing, 2028-2030 introduces protocol upgrades for Dilithium/FALCON signatures with hybrid PreQ-PQ operation, 2030-2035 achieves full post-quantum transition deprecating classical algorithms. The multiple migration paths (proactive, adaptive, hybrid) provide flexibility for different user segments without forcing single adoption strategy. Hash function upgrades to 384-bit outputs and zkLogin PQ-zkSNARK research proceed in parallel, ensuring comprehensive quantum readiness rather than piecemeal patches.

AI infrastructure expansion shows clear milestones with Walrus mainnet launch (Q1 2025) providing decentralized storage for AI models, Talus Nexus framework enabling composable agent workflows (February 2025 deployment), and Nautilus TEE framework expanding to Intel TDX and AMD SEV beyond current AWS Nitro Enclaves support. The Alibaba Cloud partnership roadmap includes expanded language support, deeper ChainIDE integration, and demo days across Hong Kong, Singapore, and Dubai targeting developer communities. OpenGraph's on-chain inference explorer and TensorflowSui SDK maturation provide practical tools for AI developers beyond theoretical frameworks.

Robotics capabilities advancement progresses from multi-robot collaboration demos to production deployments with 3DOS network expansion, "internetless mode" radio wave transaction capabilities, and zkTunnels enabling zero-gas robot commands. The technical architecture supporting Byzantine Fault Tolerance, sub-second coordination loops, and autonomous M2M payments exists today—adoption barriers are educational and ecosystem-building rather than technical limitations. NASA, Meta, and Uber alumni involvement signals serious engineering talent addressing real-world robotics challenges versus academic research projects.

Protocol improvements include Mysticeti consensus refinements maintaining 80% latency reduction advantage, horizontal scaling through Pilotfish multi-machine execution, and storage optimization for growing state. The checkpoint system (every ~3 seconds) provides verifiable snapshots for AI training data and robotics audit trails. Transaction size shrinking to single-byte preset formats reduces bandwidth requirements for IoT devices. Sponsored transaction expansion eliminates gas friction for consumer applications requiring seamless Web2-like UX.

Technical excellence positions Sui for advanced computing dominance

Comprehensive analysis across technical architecture, leadership vision, real-world implementations, and competitive positioning reveals Sui as the blockchain platform uniquely prepared for AI, robotics, and quantum computing convergence.

Sui achieves technical superiority through measured performance metrics: 297,000 TPS with 480ms finality surpasses all major competitors, enabling real-time AI agent coordination and robotics control impossible on slower chains. The object-centric data model combined with Move language security provides programming model advantages preventing vulnerability classes plaguing account-based architectures. Cryptographic agility designed from inception—not retrofitted—enables quantum-resistant transitions without hard forks or governance battles. These capabilities exist in production today on mainnet with 122 validators, not as theoretical whitepapers or distant roadmaps.

Visionary leadership through Kostas Chalkias's 50+ publications, 8 US patents, and cryptographic innovations (zkLogin, BPQS, Winterfell STARK, HashWires) provides intellectual foundation distinguishing Sui from technically competent but unimaginative competitors. His quantum computing breakthrough research (July 2025), AI infrastructure support (Swarm Network backing), and public communication (Token 2049, Korea Blockchain Week, London Real) establish thought leadership attracting top-tier developers and institutional partners. The willingness to architect for 2030+ timeframes versus quarterly metrics demonstrates long-term strategic thinking required for platform infrastructure.

Ecosystem validation through production deployments (Atoma mainnet AI inference, 3DOS 79,909-printer network, Talus agent frameworks) proves technical capabilities translate to real-world utility. Institutional partnerships (Alibaba Cloud, Swiss bank custody, Grayscale/Franklin Templeton products) signal mainstream recognition beyond blockchain-native enthusiasts. Developer growth metrics (50% of hackathon winners in AI, comprehensive SDK coverage, AI coding assistants) demonstrate sustainable ecosystem expansion supporting long-term adoption.

The strategic positioning as blockchain infrastructure for the robot economy, quantum-resistant financial systems, and autonomous AI agent coordination creates differentiated value proposition versus competitors focused on incremental improvements to existing blockchain use cases. With Morgan Stanley projecting 1 billion humanoid robots by 2050, NIST mandating quantum-resistant algorithms by 2030, and McKinsey forecasting 40% productivity gains from agentic AI—Sui's technical capabilities align precisely with macro technology trends requiring decentralized infrastructure.

For organizations building advanced computing applications on blockchain, Sui offers unmatched technical capabilities (297K TPS, 480ms finality), future-proof quantum-resistant architecture (only blockchain designed for quantum from inception), proven robotics infrastructure (only demonstrated multi-robot collaboration), superior programming model (Move language security and expressiveness), and real-time performance enabling AI/robotics applications physically impossible on sequential execution chains. The platform represents not incremental improvement but fundamental architectural rethinking for blockchain's next decade.

Stablecoins Reshape Cross-Border Payments for Chinese Companies

· 37 min read
Dora Noda
Software Engineer

Stablecoins have emerged as transformative infrastructure for Chinese companies expanding internationally, offering 50-80% cost savings and settlement times reduced from days to minutes. The market reached $300+ billion by October 2025 (up 47% year-to-date), processing $6.3 trillion in cross-border payments over 12 months—equivalent to 15% of global retail cross-border payments. Major Chinese companies including JD.com, Ant Group, and Zoomlion are actively deploying stablecoin strategies through Hong Kong's newly regulated framework, which became effective August 1, 2025. This development comes as China maintains strict crypto restrictions on the mainland while positioning Hong Kong as a compliant gateway, creating a dual-track approach that allows Chinese enterprises to access stablecoin benefits while the government develops the digital yuan (e-CNY) as a strategic alternative.

The shift represents more than technological innovation—it's a fundamental restructuring of cross-border payment infrastructure. Traditional SWIFT transfers cost 6-6.3% of transaction value and take 3-5 business days, leaving approximately $12 billion trapped in-transit globally. Stablecoins eliminate correspondent banking chains, operate 24/7, and settle in seconds for 0.5-3% total cost. For Chinese companies facing capital controls, foreign exchange volatility, and high banking fees, stablecoins offer a pathway to operational efficiency—though one fraught with regulatory complexity, technical risks, and the strategic tension between dollar-backed stablecoins and China's digital currency ambitions.

Understanding stablecoins: types, mechanisms, and market dominance

Stablecoins are cryptocurrencies designed to maintain stable value by pegging to external assets, primarily the US dollar. The sector is dominated by fiat-collateralized models, which hold 99% market share and back each token 1:1 with reserves—typically US Treasury bills, cash, and equivalents. Tether (USDT) leads with $174-177 billion market capitalization (58-68% dominance), followed by Circle's USDC at $74-75 billion (20.5-24.5%). Both experienced explosive 2024 growth: USDT added $45 billion in new issuance (+50% annually), while USDC grew 79% from $24.4 billion to $43.9 billion.

USDT generates significant revenue from yields on its $113+ billion US Treasury holdings, earning $13 billion net profit in 2024 (record-breaking). The company maintains 82,000+ Bitcoin (~$5.5 billion) and 48 metric tons of gold as additional reserves, with a $7+ billion excess buffer. However, transparency remains contentious: Tether has never completed a full independent audit, relying instead on quarterly attestations from BDO. The CFTC fined Tether $42.5 million in 2021 for claims that USDT was fully backed only 27.6% of the time during 2016-2018. Despite controversies, USDT dominates with daily trading volumes consistently exceeding $75 billion—often surpassing Bitcoin and Ethereum combined.

USDC offers stronger transparency through monthly attestations by Deloitte & Touche and detailed CUSIP-level disclosure of Treasury holdings. Circle manages approximately 80% of reserves through BlackRock's government money market fund (USDXX), with 20% in cash at Global Systemically Important Banks (GSIBs). This structure proved both strength and vulnerability: during March 2023's Silicon Valley Bank collapse, Circle's $3.3 billion exposure (8% of reserves) caused USDC to briefly depeg to $0.87 before recovering within four days after federal intervention. The incident demonstrated how traditional banking system risks contaminate stablecoins, triggering cascade effects—DAI depegged to $0.85 due to 40% USDC collateral exposure, causing ~3,400 automatic liquidations worth $24 million on Aave.

Crypto-collateralized stablecoins like DAI (MakerDAO) represent the decentralized alternative, with $5.0-5.4 billion market capitalization. DAI requires over-collateralization—typically 150%+ collateralization ratios—using crypto assets (ETH, WBTC, USDC) locked in smart contracts. When collateral value drops too low, positions automatically liquidate to maintain DAI stability. This model proved resilient during the 2023 banking crisis, maintaining peg while USDC wobbled, but faces capital inefficiency and complexity challenges. MakerDAO is evolving toward "Endgame" plans to scale DAI (rebranding as USDS) to 100 billion supply to compete with Tether.

Algorithmic stablecoins have been largely abandoned following Terra/Luna's catastrophic May 2022 collapse that wiped out $45-60 billion. TerraUST (UST) relied solely on arbitrage with LUNA token without true collateral, offering unsustainable 19.5% APY through Anchor Protocol that required $6 million daily subsidies by April 2022. When large withdrawals triggered runs on May 7, 2022, the death spiral mechanics caused LUNA to mint exponentially while UST fell from $1 to $0.35, then pennies. Research revealed 72% of UST was concentrated in Anchor, wealthier investors exited first with smaller losses, and retail investors who "bought the dip" suffered the most. The Luna Foundation Guard's $480 million Bitcoin reserves proved insufficient to restore the peg, demonstrating fatal flaws in undercollateralized algorithmic models.

Stablecoins maintain their dollar peg through arbitrage mechanisms: when trading above $1, arbitrageurs mint new tokens from issuers at $1 and sell at market price for profit, increasing supply and pushing prices down; when trading below $1, arbitrageurs buy cheap tokens on markets and redeem at issuers for $1, decreasing supply and pushing prices up. This self-stabilizing system works in normal conditions with credible issuer commitment, supplemented by reserve management, redemption guarantees, and collateral liquidation protocols.

Cross-border payment pain points that stablecoins address for Chinese companies

Chinese companies face severe friction in traditional cross-border payments, stemming from high costs, settlement delays, capital controls, and currency volatility. Transaction fees average 6-6.3% of transfer value according to 2024 World Bank data, comprising sending bank fees ($15-$75), multiple intermediary correspondent bank fees ($15-$50 per bank, typically 2-4 banks in payment chain), receiving bank fees ($10-$30), and foreign exchange markups (2-6% above mid-market rate hidden in exchange rates). For a typical $10,000 wire transfer, total costs reach $260-$463 (2.6-4.63%), with international remittances to Sub-Saharan Africa averaging 7.7%.

Settlement times of 3-5 business days create massive working capital inefficiency, with approximately $12 billion trapped in-transit globally at any moment. SWIFT's T+2 to T+3 settlement cycles result from different time zones and banking hours (limited to business hours only), weekend and holiday closures, multiple intermediary banks in payment chains, manual AML/KYC verification processes, batch-based processing systems, and currency conversion requirements. SWIFT data shows approximately 10% of cross-border transactions require correction or fail: 4% cancelled before/on settlement date, 1% cancelled after settlement date, and 5% completed after settlement date.

China's foreign exchange controls create unique challenges under SAFE (State Administration of Foreign Exchange) and PBOC (People's Bank of China) administration. The $5 million threshold requires SAFE approval for all outbound remittances exceeding this amount (reduced from previous $50 million limit). The $50 million ODI threshold means SAFE supervises and can halt ODI projects requiring larger transfers. Pre-payment registration requirements mandate companies register with SAFE within 15 working days of contract signing for advance payments. Companies must report overseas payments with terms exceeding 90 days, and overpayment amounts cannot exceed 10% of prior year's total importation. December 2024 SAFE regulations now require banks to monitor and report crypto-related transactions, specifically targeting illegal cross-border transactions.

Individual restrictions compound challenges: annual foreign currency conversion limits of $50,000 per person, transactions exceeding $10,000 must be reported, and cash transactions exceeding RMB 50,000 (~$7,350) must be reported. Companies report unpredictable approval times from SAFE, with window guidance varying by city and region, creating lack of consistency and uncertain process times that differ by jurisdiction.

Stablecoins dramatically address these pain points through multiple mechanisms. Cost reductions reach 50-80% versus traditional methods: blockchain transaction costs on Ethereum average ~$1 for USDC transfers (down from $12 in 2021), while Layer 2 networks like Base and Arbitrum charge less than $0.01 average, and Solana processes transactions for ~$0.01 with 1-2 second settlement. Total stablecoin fees range 0.5-3.0% of transfer amount compared to 6-6.3% traditional. For a $10,000 transfer, stablecoins cost $111-$235 (1.11-2.35%) versus $260-$463 traditional, yielding net savings of $149-$228 per transaction (49-57% reduction). For companies with $1 million annual cross-border payments, this translates to $30,000-$70,000 annual savings (50-87% reduction).

Speed improvements are even more dramatic: settlement reduced from 3-5 days to seconds or minutes with 24/7/365 availability. Solana achieves 1,133 TPS with 30-second finality; Ethereum processes transactions in 2-5 minutes with 12-confirmation finality (~3 minutes); Layer 2 solutions achieve 1-5 second settlement; and Stellar completes transactions in 3-5 seconds. This eliminates the approximately $1.5 million in capital trapped in-transit at any moment for a company with $10 million monthly cross-border payments. At 5% annual cost of capital, this freed capital provides $75,000 annual benefit, combined with fee savings of $60,000-$80,000 for total annual benefit of $135,000-$155,000 (1.35-1.55% of payment volume).

Stablecoins bypass traditional banking friction through direct wallet-to-wallet transfers requiring no bank intermediaries, eliminating 3-5 intermediary banks in payment chains, circumventing capital controls (blockchain-based transfers harder to restrict than traditional banking flows), reduced AML/KYC friction through smart contract automation and on-chain compliance tools (companies like Chainalysis, Elliptic, TRM Labs provide real-time AML screening), and no pre-funding requirements eliminating need for local currency accounts in multiple jurisdictions. For Chinese companies specifically, stablecoins potentially bypass SAFE approval requirements for smaller transactions, provide faster options than 15-day registration requirements for pre-payments, offer more flexibility than $5 million threshold restrictions, and enable real-time settlement despite capital controls—with Hong Kong serving as gateway through JD.com's Jingdong Coinlink preparing HKD and USD stablecoins.

Volatility mitigation occurs through 1:1 fiat peg with each stablecoin backed by equivalent fiat reserves. USDC's reserve composition includes 85% short-term US Treasuries or repos and 15% cash for immediate liquidity. Instant settlement eliminates multi-day currency risk windows, providing predictability where companies know exact amounts recipients receive. Major stablecoins achieved $250 billion total circulation by 2025 (doubled from $120 billion 18 months prior), with daily velocity of 0.15-0.25 indicating high liquidity and projected growth to $400 billion by end-2025 and $2 trillion by 2028.

Regulatory landscape: China's dual-track approach and global frameworks

China maintains strict crypto restrictions on the mainland while positioning Hong Kong as a regulated gateway, creating a complex dual-track system for Chinese enterprises. In June 2025, full criminalization of cryptocurrency ownership, trading, and mining became effective, expanding the 2021 ban. The August 2024 Supreme People's Court ruling classified using cryptocurrencies to convert criminal proceeds as criminal law violation. December 2024 SAFE regulations require banks to monitor and report crypto-related transactions, specifically targeting illegal cross-border financial activities. Using yuan to buy crypto assets before converting to foreign currencies is now classified as illegal cross-border financial activity, with banks identifying high-risk transactions based on individual identity, fund sources, and trade frequency.

Despite these restrictions, an estimated 59 million Chinese users continue crypto activity through VPNs and offshore platforms, and the Chinese government owns 194,000 BTC (~$18 billion) seized from illicit activities. Stablecoins are viewed as threats to capital controls—prior estimates showed $50 billion left China via crypto/stablecoins in 2020 before the comprehensive ban.

Hong Kong's stablecoin framework provides the compliant pathway. In May 2025, Hong Kong's Legislative Council passed the landmark Stablecoins Bill, allowing licensed entities to issue fiat-backed stablecoins (HKD-pegged and CNH-pegged), effective August 1, 2025. The Hong Kong Monetary Authority (HKMA) oversees licensing and audits, with minimum capital requirements of HK$25 million ($3.2 million), full reserve requirements, monthly attestations, and AML compliance. Over 40 companies applied for licenses, with single digits expected for initial approvals. The first batch of sandbox participants (July 2024) included Jingdong Coinlink Technology (JD.com), Circle Coin Technology, and Standard Chartered Bank.

Chinese firms are actively pursuing Hong Kong licenses: Ant International (Singapore-based unit of Alibaba's Ant Group) is applying for stablecoin licenses in Hong Kong, Singapore, and Luxembourg, focusing on cross-border payment services and supply-chain finance through the Alipay+ global payment network. JD.com is participating in HKMA's stablecoin sandbox, planning to secure "stablecoin licences across key currency markets globally" with initial HKD and USD stablecoins, and potential offshore yuan stablecoin pending PBOC approval.

PBOC Governor Pan Gongsheng's June 2025 remarks at Lujiazui Forum marked a significant policy shift—the first official acknowledgment of stablecoins' positive role, noting they are "reshaping the global payment system" and recognizing shorter cross-border payment cycles. This signals China's evolution from complete ban to controlled experimentation using a "two-zone" approach: experimentation offshore (Hong Kong), control onshore (mainland).

United States regulatory clarity arrived with the GENIUS Act (Guiding and Establishing National Innovation for U.S. Stablecoins) signed by President Trump in July 2025. This first comprehensive federal stablecoin legislation defines collateral, disclosure, and marketing rules; creates pathway for bank-issued stablecoins; establishes reserve requirements; and gives the Federal Reserve oversight of large stablecoin issuers with master account access requirements for large-scale operations. The GENIUS Act aims to maintain USD dominance amid China's digital currency challenge and is expected to accelerate institutional entry. State-level regulation continues with multiple states maintaining money transmission licenses for stablecoin issuers, with New York (via NYDFS) particularly active. The June 2024 court ruling (SEC v. Binance) confirmed fiat-backed stablecoins like USDC and BUSD are NOT securities, with the SEC closing investigations (Paxos/BUSD case dropped) and shifting focus away from stablecoins to other crypto assets.

European Union's MiCA (Markets in Crypto-Assets) regulation became effective January 2025, requiring detailed reserve disclosure, licenses for issuers operating in EU, with 18-month transition period (until July 2026) for existing operators. MiCA prohibits interest on stablecoins to discourage use as stores of value and imposes transaction limits: if ARTs exceed 1 million transactions daily or €200 million daily value, issuers must stop new issuances. Circle became the first MiCA-licensed issuer in July 2024, with Tether claiming full compliance.

Asia-Pacific jurisdictions are creating supportive frameworks: Singapore's MAS finalized its framework in August 2023 and actively experiments with tokenized deposits through Project Guardian. Japan regulates stablecoins under the Payment Services Act since June 2022, with JPYC launching as first JPY-pegged stablecoin in August 2025, distinguishing between fiat-backed (regulated) and algorithmic (less regulated). Bahrain's Stablecoin Issuance and Offering Module (July 2025) allows single currency fiat-backed stablecoins while prohibiting algorithmic stablecoins. El Salvador granted Tether stablecoin issuer and DASP licenses in 2024, with Tether establishing headquarters there. Dubai and Hong Kong granted Tether VASP licenses in 2024, with both jurisdictions welcoming stablecoin issuers.

Compliance pathways for Chinese companies require offshore legal structures (Hong Kong subsidiaries being most common), payment service provider partnerships with licensed entities, extensive KYC/AML requirements through automated compliance tools (Chainalysis, Elliptic provide real-time AML screening for blockchain identity solutions), and appropriate licensing based on target markets. Hong Kong's framework allows Chinese companies to operate compliantly while maintaining separation from mainland restrictions, positioning Hong Kong as the primary gateway for China's stablecoin experimentation.

Real-world applications: how Chinese companies use stablecoins

Chinese companies are deploying stablecoins across four major categories: cross-border e-commerce, supply chain finance, international trade settlement, and overseas payroll—with concrete implementations emerging in 2024-2025.

Cross-border e-commerce payment and settlement

JD.com represents the flagship case study. China's second-largest e-commerce company (often called "China's Amazon") established Jingdong Coinlink Technology in Hong Kong, participating in HKMA's stablecoin sandbox since July 2024. Chairman Richard Liu announced in June 2025 that JD.com intends to "secure stablecoin licences across key currency markets globally" with initial HKD-pegged and USD-pegged stablecoins, plus future offshore yuan (CNH) stablecoin pending PBOC approval.

Richard Liu stated JD.com "can reduce the global cross border payment cost by 90% and then improve the efficiency to within ten seconds," hoping "JD stablecoin will become a universal payment method worldwide." CEO Teddy Liu of Jingdong Coinlink declared in June 2025: "I believe stablecoins will become the next-generation payment system – that is beyond doubt." JD.com's initial focus targets B2B payments before consumer adoption, with direct transactions planned with Southeast Asian suppliers using JD stablecoins for minute-level transfers, targeting Asia-Pacific, Middle East, and African markets.

The Chinese seller ecosystem on Amazon and eBay is massive: over 63% of Amazon third-party sellers are from mainland China or Hong Kong, with Shenzhen alone accounting for approximately 25% of all Amazon third-party sellers. China's cross-border e-commerce exports grew 19.6% in 2023, reaching RMB 2.38 trillion ($331 billion). These sellers face 7-15 day payment cycles from Amazon, but stablecoins enable minute-level transfers versus 1-5 days traditional. Stablecoin transaction fees are approximately 1/10th of traditional foreign trade transaction fees.

Jiang Bo, a cross-border payment expert interviewed by 36Kr in 2025, analyzed: "From the customers we have contacted, cross-border e-commerce merchants and enterprises engaged in digital service exports are more willing to try stablecoins, mainly because they see the advantages of stablecoins in terms of efficiency and cost." He noted "The repayment cycle for Amazon merchants is generally 7-15 days. Higher payment efficiency helps ensure stable cash flow and improve the efficiency of capital utilization."

Payment platforms enabling this include Shopify integration with Coinbase Commerce for crypto/stablecoin payments where merchants can accept USDC and USDT globally. TransFi processes over $10 billion in annualized payment volume (300% YoY growth in 2025), supporting local collection and payout across 70+ markets, backed by Circle Ventures and Ripple. Grab in Southeast Asia partnered with Alipay and StraitsX in March 2024, allowing Chinese tourists to pay using Alipay converted to XSGD stablecoin, with merchants receiving Singapore dollars.

Supply chain finance and Belt and Road settlements

Zoomlion Heavy Industry provides the flagship manufacturing case. This construction and agricultural machinery manufacturer with $3.3 billion in offshore revenue (2024) partnered with AnchorX (Hong Kong fintech) to use AxCNH, the first licensed offshore yuan-pegged stablecoin. AxCNH received regulatory license from Astana Financial Services Authority (AFSA) in Kazakhstan and operates on Conflux Network blockchain. Launched at the 10th Belt and Road Summit in Hong Kong in February 2025, Zoomlion completed pilot transactions on Conflux blockchain for cross-border settlements with Belt and Road Initiative (BRI) partners.

The strategic significance is substantial: in 2024, China's trade with BRI countries reached RMB 22.1 trillion ($3.2 trillion), targeting 150+ countries across Asia, Africa, South America, and Oceania. AxCNH provides reduced exchange rate volatility, lower transaction costs, and improved settlement efficiency (minute-level versus days). Lenovo also signed an MOU with AnchorX for AxCNH usage, focusing on supply chain and international settlements. ATAIX Eurasia (Kazakhstan exchange) listed AxCNH with trading pairs AxCNH:KZT and AxCNH:USDT, positioning Kazakhstan as gateway to Central Asia and Europe for BRI trade settlements.

Ant Group/Ant International focuses on cross-border finance and supply chain finance, applying for stablecoin licenses in Hong Kong, Singapore, and Luxembourg. The company completed significant tokenized asset projects: August 2024 partnership with Longshine Technology for renewable energy asset tokenization, and December 2024 GCL Energy Technology solar asset project (RMB 200 million / $28 million). Ant's tokenization model uses stablecoins as settlement layer for tokenized assets, bypassing SWIFT system for asset transactions while providing cash-like, low-volatility investment options.

Standard Chartered Bank formed a joint venture with Animoca Brands for HKD stablecoin, participating in Hong Kong's stablecoin sandbox. As one of three banks authorized to issue physical HKD, Standard Chartered's focus on cross-border B2B payments represents traditional banking's embrace of stablecoin infrastructure.

International trade settlement and B2B transactions

Monthly stablecoin transaction volumes between businesses reached $3 billion+ in early 2025, up from under $100 million at start of 2023. 2024 saw 29.6% increase in crypto payment transaction volume (CoinGate data), with stablecoins accounting for 35.5% of all crypto transactions in 2024 (up from 25.4% in 2023 and 16% in 2022, representing 171% YoY growth 2022-2023 and 26.2% YoY growth 2023-2024).

JD.com's B2B focus prioritizes direct transactions with Southeast Asian suppliers using JD stablecoins for minute-level transfers and supply chain payments before expanding to consumer adoption. Use case categories include: commodity trading using AxCNH for Belt and Road commodity imports; manufacturing settlements with direct supplier payments; treasury management enabling real-time liquidity management across borders; and trade finance through pilot corridors in Hong Kong and Shanghai free trade zones.

Ant Digital Technologies' tokenized renewable energy asset projects use stablecoins as settlement layer, with investors receiving stablecoin-denominated returns while bypassing traditional banking for asset-backed financing. This represents the evolution of trade finance where stablecoins serve as universal settlement layer for tokenized real-world assets.

Overseas employee payroll and contractor payments

General market adoption shows 75% of Gen Z workers prefer receiving at least part of their salary in stablecoins, with Web3 professionals earning average $103,000 annually. USDC holds 63% market share for payroll, USDT 28.6%. Benefits include stablecoin transaction fees of 0.1-1% versus 3.5% credit card fees; speed of minutes versus 3-5 days for international transfers; blockchain-recorded transparency for all transactions; and USD-pegged stablecoins protecting against local currency devaluation.

Rise processed over $800 million in payroll volume, operating across 20+ blockchains with Circle partnership for USDC payments. The platform includes compliance tools through Chainalysis and SumSub integration, issues 1099s, and gathers W9/W8-Ben forms. Deel uses BVNK for stablecoin settlements, paying contractors in 100+ countries with focus on international hiring. Bitwage offers over 10 years experience in crypto payroll, supporting Bitcoin and stablecoin payments as add-on to existing payroll systems.

While specific named Chinese companies using these for payroll remain limited in public reporting, the infrastructure is being built for tech startups in Web3 space, gaming companies with international developers, and e-commerce platforms with global remote teams. Chinese companies with distributed international workforces are increasingly exploring these platforms to reduce remittance costs and improve payment speed for overseas contractors.

Southeast Asian payment corridors

Singapore-China corridor demonstrates practical implementation. StraitsX issues XSGD (Singapore dollar stablecoin) as an MAS-regulated licensed issuer, processing over $8 billion in volume. The real-world application shows Chinese tourists using Alipay to scan GrabPay QR codes, with behind-the-scenes operations where Alipay purchases XSGD and transfers to Grab merchants who receive SGD settlement. Volume data shows 75% of XSGD transfers under $1 million and 25% of transfers under $10,000 (retail activity), with steady $200+ million quarterly transfer value since Q3 2022.

Thailand-Singapore's PromptPay-PayNow connection (since 2021) provides a blueprint: real-time, low-cost mobile payments with daily limit of SGD 1,000 / THB 25,000 ($735/$695) at THB 150 ($4) cost in Thailand and free in Singapore. This represents potential infrastructure for China-ASEAN payment integration with stablecoin layers on top of fast payment systems, supporting Chinese businesses operating in Southeast Asia.

Risks and challenges: regulatory, technical, and operational hazards

Regulatory risks dominate the landscape

China's June 2025 full criminalization of cryptocurrency ownership, trading, and mining creates existential legal risk for mainland entities. Using stablecoins to circumvent capital controls can result in criminal prosecution, with banks required to monitor and report crypto-related transactions. The August 2024 Supreme People's Court ruling classified using cryptocurrencies to convert criminal proceeds as criminal law violation, expanding enforcement beyond trading to include any financial manipulation using crypto.

Chinese entities face extreme difficulty accessing compliant on/off ramps within mainland China due to forex controls. All centralized exchanges were banned since 2017, with OTC trading persisting but carrying legal risks. VPN usage required to access foreign platforms is itself restricted. Yuan-to-crypto conversions are classified as illegal forex activity as of December 2024. Hong Kong provides the legal gateway, but requires extensive KYC/AML compliance, with licensed exchanges operational while maintaining separation from mainland capital controls.

Banking de-risking concerns create operational challenges. US banks increasingly wary of processing crypto-related transactions force issuers to offshore banks. Tether lacks full regulatory oversight with no authoritative body monitoring reserve investments. Circle's $3.3 billion exposure to Silicon Valley Bank demonstrated interconnected risks. Chinese entities face extreme difficulty accessing compliant on/off ramps, with Western banks hesitant to service China-linked crypto entities due to compliance costs for AML/KYC requirements and concerns about facilitating capital control circumvention.

Enforcement actions demonstrate real consequences. Chainalysis estimates $25-32 billion in stablecoins received by illicit actors in 2024 (12-16% of market cap). The UN Office of Drugs and Crime (January 2024) identified stablecoins as preferred currency for cybercriminals in Southeast Asia. $20 billion in Tether transactions through sanctioned Russian exchange Garantex are under investigation, though Tether has frozen $12 million linked to scams through its T3 Financial Crime Unit (2024) and recovered $108.8 million USDT linked to illicit activities.

Technical risks: smart contracts, congestion, and custody

Smart contract vulnerabilities caused massive losses in 2024. According to DeFiHacksLabs data, over 150 contract attack incidents resulted in losses exceeding $328 million in 2024 alone, with $9.11 billion accumulated DeFi losses according to DeFiLlama. Q1 2024 alone saw $45 million in losses across 16 incidents ($2.8 million average per exploit).

The OWASP Smart Contract Top 10 (2025) analyzed $1.42 billion in losses, identifying: Access Control Vulnerabilities ($953.2 million), Logic Errors ($63.8 million), Reentrancy Attacks ($35.7 million), Flash Loan Attacks ($33.8 million), and Price Oracle Manipulation ($8.8 million). High-profile 2024 attacks included Sonne Finance (May 2024) with $20 million exploited via Compound V2 fork vulnerability using flash loans.

Stablecoin-specific vulnerabilities show centralized stablecoins face custodial and regulatory risks, while decentralized stablecoins remain vulnerable to smart contract and oracle issues. DAI experienced depegging when USDC (40% of collateral) depegged in March 2023, demonstrating cascade contagion effects. Algorithmic stablecoins remain fundamentally flawed, as UST collapse demonstrated.

Blockchain congestion creates operational challenges. Ethereum mainnet limited to approximately 15 TPS causes high gas fees during congestion, though Layer 2 solutions (Arbitrum, Optimism) reduce fees but add complexity. Cross-chain bridges create single points of failure—the Ronin hack cost $625 million, Wormhole $325 million. Emerging solutions include Layer 2 adoption accelerating with Base costing under $0.01 versus $44 traditional wire transfer; Solana processing stablecoin transactions in 1-2 seconds at less than $0.01 fees; Circle's CCTP V2 reducing settlement from 15 minutes to seconds; and LayerZero OFT standard enabling seamless multi-chain stablecoin deployment.

Exchange and custody risks remain significant. Concentration of liquidity creates systemic vulnerability—Coinbase temporarily paused USDC redemptions during SVB crisis (March 2023). Private key management is critical with social engineering remaining the top threat. However, multi-party computation (MPC) and hardware security modules (HSM) are improving security, with institutional-grade custody now available through qualified custodians with regulatory oversight. Critically, stablecoin holders have no legal entitlement to instant redemption, being treated as unsecured creditors in bankruptcy with no legal claim to underlying assets.

De-pegging events: catastrophic precedents

TerraUST's May 2022 collapse remains the defining catastrophe. On May 7, 2022, large withdrawals (375 million UST) triggered runs, with an $85 million trade on Curve Finance overwhelming stabilization mechanisms. By May 9, UST fell to $0.35 while LUNA fell from $80 to pennies. Total losses reached $45-60 billion in ecosystem value with $400 billion broader market impact.

Root causes included unsustainable yields with Anchor paying 19.5% APY requiring $6 million daily subsidies by April 2022; algorithmic instability where UST relied solely on LUNA arbitrage without true collateral; death spiral mechanics as panicking UST holders caused LUNA to mint exponentially, diluting value; and liquidity attacks exploiting Curve 3pool vulnerability during planned liquidity migration to 4pool. The concentration risk showed 72% of UST deposited in Anchor, with wealthier investors exiting first with smaller losses while retail investors who "bought the dip" suffered most. Luna Foundation Guard's $480 million Bitcoin reserves proved insufficient to restore peg.

USDC's March 2023 de-pegging from Silicon Valley Bank collapse revealed how traditional banking risks contaminate stablecoins. On March 10, 2023, SVB failure revealed Circle held $3.3 billion (~8% of reserves) with the failed bank. USDC fell to $0.87 (13% depeg) on Saturday March 11, with Coinbase suspending USDC-USD conversions over the weekend when banks were closed. Cascade effects included DAI depegging to $0.85 (40% collateral was USDC), FRAX also affected due to USDC exposure, and approximately 3,400 automatic liquidations on Aave worth $24 million collateral (86% USDC).

Recovery occurred by Monday after FDIC waived $250,000 insurance limit, but S&P Research findings (June 2023) showed USDC was below $0.90 for 23 minutes (longest depeg), DAI below $0.90 for 20 minutes, USDT only dipped below $0.95 for 1 minute, and BUSD never dropped below $0.975. Frequency analysis revealed USDC and DAI depegged far more often than USDT over the 24-month period. Post-crisis, Circle expanded banking partnerships (BNY Mellon, Cross River), increased reserve diversification, and enhanced transparency through monthly attestations.

Tether transparency concerns persist despite its relative stability. Historical problems include 2018 claims of $2.55 billion reserves backing $2.54 billion USDT supported only by law firm report (not audit); 2019 New York Attorney General investigation revealing only 74% backing by cash/equivalents; 2021 CFTC fine of $41 million for false statements about dollar backing; and reserves held for only 27.6% of time during 2016-2018 sample period per CFTC findings.

Current reserve composition (Q2 2024) shows $100 billion+ in U.S. Treasury bonds, 82,000+ Bitcoin (~$5.5 billion value), 48 metric tons of gold, and over $120 billion total reserves with $5.6 billion surplus (Q1 2025). However, discrepancy exists between $120 billion reserves and 150 billion+ USDT circulation. Tether maintains no comprehensive audit from Big Four accounting firm (only quarterly attestations from BDO), with $6.57 billion in "secured loans" (up from $4.7 billion in Q1 2024) having unclear composition. Reliance on offshore banks without authoritative reserve monitoring earned S&P risk rating of 4 out of 5 (December 2023).

Operational challenges: on-ramps, banking, and taxation

Mainland China restrictions make on/off ramps extremely difficult. All centralized exchanges banned since 2017, with OTC trading persisting but carrying legal risks. VPN usage required to access foreign platforms is itself restricted. Yuan-to-crypto conversions classified as illegal forex activity (December 2024). Hong Kong provides gateway through licensed exchanges operational with KYC/AML compliance requirements. AxCNH listed on ATAIX Eurasia (Kazakhstan) targets Chinese firms, with Zoomlion ($3.3 billion offshore revenue) signed to use AxCNH for settlements. PBOC Shanghai center developing cross-border digital payment platform.

Global access challenges include off-ramp liquidity fragmented across 100+ blockchains, cross-chain bridge security concerns following major hacks, weekend/holiday conversion limited by traditional banking hours (SVB crisis example), though Real-Time Payments (RTP) and FedNow may eventually enable 24/7 fiat settlement.

Banking relationships pose correspondent banking issues where Western banks hesitate to service China-linked crypto entities. Compliance costs high due to AML/KYC requirements, with SWIFT dominance at $5 trillion daily versus China's CIPS at $200+ billion processed but growing. Banking relationships essential for institutional-scale stablecoin operations. Institutional solutions emerging include Stripe's $1.1 billion acquisition of Bridge (stablecoin infrastructure) signaling fintech integration, PayPal and SAP offering native stablecoin support, Coinbase and Circle pursuing banking licenses under favorable US regulatory environment, and regional API providers differentiating on compliance and service.

Tax implications and reporting create complexity. Post-June 2025 ban makes crypto tax largely irrelevant for mainland individuals, though previous unreported crypto gains subject to capital gains treatment. Cross-border transactions monitored for capital flight, while Hong Kong provides clearer framework with stablecoin regulatory clarity. International compliance requires FATF Travel Rule adoption by China for international transactions, wallet registration for traceability, Chinese entities using offshore structures facing complex multi-jurisdictional reporting, and capital losses from depegging events requiring classification based on business versus capital treatment.

Central Bank Digital Currency: e-CNY's international push

China's digital yuan (e-CNY) represents the government's strategic alternative to private stablecoins, with massive domestic deployment and expanding international ambitions. As of 2025, the e-CNY achieved 261 million individual wallets opened, $7.3 trillion cumulative transaction value (up from $1 trillion mid-2024), 180 million individual users (July 2024), and operations in 29 cities across 17 provinces, used for metro fares, government wages, and merchant payments.

September 2025 marked a critical inflection point when PBOC inaugurated the International Operations Center in Shanghai with three platforms: a cross-border digital payment platform exploring e-CNY for international transactions; a blockchain service platform providing standardized cross-chain transaction transfers; and a digital asset platform integrating with existing financial infrastructure.

Project mBridge represents wholesale CBDC infrastructure through collaboration with Bank for International Settlements (BIS), with 11+ central banks in trials as of 2024 expanding to 15 new countries in 2025. The 2025 projection targets $500 billion annually through mBridge, with 2030 scenarios suggesting 20-30% of China's foreign trade could use e-CNY rails.

Belt and Road Integration shows ASEAN trade volume in RMB reaching 5.8 trillion yuan, with e-CNY used for oil transactions. The China-Laos Railway and Jakarta-Bandung High-Speed Rail accept e-CNY. UnionPay expanded e-CNY network to 30+ countries with Cambodia and Vietnam focus, targeting the Belt and Road corridor.

China's strategic objectives include countering USD stablecoin dominance (99% of stablecoin activity is dollar-denominated), circumventing SWIFT sanctions potential, enabling offline payments for rural areas and in-flight use, and programmable sovereignty through code-based capital controls and transaction limits.

Challenges remain substantial: yuan represents only 2.88% of global payments (June 2024), down from 4.7% peak (July 2024), with capital controls limiting convertibility. Competition from established WeChat Pay/Alipay (90%+ market share) domestically limits e-CNY adoption enthusiasm. USD still commands 47%+ of global payments with euro at 23%, making yuan internationalization a long-term strategic challenge.

Institutional adoption: projections through 2030

Market growth projections vary widely but all point upward. Conservative estimates from Bernstein project $3 trillion by 2028, Standard Chartered forecasts $2 trillion by 2028, from current $240-250 billion (Q1 2025). Aggressive forecasts include futurist predictions of $10+ trillion by 2030 based on GENIUS Act regulatory clarity, Citi GPS $2 trillion by 2028 potentially higher with corporate adoption, and McKinsey suggesting daily transactions could reach $250 billion in next 3 years.

Transfer volume data shows 2024 reached $27.6 trillion total (exceeding Visa + Mastercard combined), with daily real payment transactions at $20-30 billion (remittances + settlements). Currently representing less than 1% of global money transfer volume but doubling every 18 months, Q1 2025 remittances reached 3% of $200 trillion global cross-border payments.

Banking sector developments include JPMorgan's JPM Coin processing over $1 billion daily in tokenized deposit settlements. Citibank, Goldman Sachs, and UBS experiment via Canton Network. US banks discuss joint stablecoin issuance, with 50%+ of financial institutions reporting stablecoin infrastructure readiness (2025 survey).

Corporate adoption shows Stripe's Bridge acquisition for $1.1 billion signaling fintech integration, PayPal launching PYUSD ($38 million issued January 2025, though slowing), retailers exploring branded stablecoins (Amazon, Walmart predicted 2025-2027), and Standard Chartered launching Hong Kong dollar-pegged stablecoin.

Academic and institutional research shows 60% of institutional investors prefer stablecoins (Harvard Business Review 2024), MIT Digital Currency Initiative conducting active research, 200+ new academic papers on stablecoins published in 2025, and Stanford launching Stablecoin and Digital Assets Lab.

Regulatory evolution and compliance frameworks

United States GENIUS Act impact creates dual role for Federal Reserve as gatekeeper and infrastructure provider. Bank-issued stablecoins anticipated to dominate with compliance infrastructure, tier-2 banks forming consortiums for scale, and regional banks relying on tech stack providers (Fiserv, FIS, Velera). The framework expected to generate $1.75 trillion in new dollar stablecoins by 2028, viewed by China as strategic threat to yuan internationalization, spurring China's accelerated Hong Kong stablecoin framework and support for CNH-pegged stablecoins offshore.

European Union MiCA fully applicable since late 2024, prohibits interest payments limiting adoption (largest EU stablecoin only €200 million versus USDC $60 billion), imposes stringent reserve requirements and liquidity management, with 18-month grace period ending July 2026.

Asia-Pacific frameworks show Singapore and Hong Kong creating supportive frameworks attracting issuers. Hong Kong stablecoin licenses creating compliant CNH-pegged options, Japan regulatory clarity enabling expansion, with 88% of North American firms viewing regulations favorably (2025 survey).

Cross-jurisdictional challenges include the same stablecoin being treated as payment instrument, security, or deposit in different countries. Extraterritorial regulations create compliance complexity, regulatory fragmentation forces issuers to choose markets or adopt complex structures, and enforcement risks persist even without clear guidelines.

Technology improvements: Layer 2 scaling and cross-chain interoperability

Layer 2 scaling solutions dramatically reduce costs and increase speed. Major networks in 2025 include: Arbitrum using high-speed Ethereum scaling via optimistic rollups; Optimism with reduced fees while maintaining Ethereum security; Polygon achieving 65,000 TPS with 28,000+ contract creators, 220 million unique addresses, and $204.83 million TVL; Base (Coinbase L2) with under $0.01 transaction costs; zkSync using zero-knowledge rollups for trustless scaling; and Loopring achieving 9,000 TPS for DEX operations.

Cost reductions are dramatic: Base charges less than $0.01 versus $44 traditional wire; Solana stablecoins achieve 1-2 seconds settlement at less than $0.01 fees; Ethereum gas fees significantly reduced via L2 bundling.

Cross-chain interoperability advances through leading protocols. LayerZero OFT Standard enables Ethena's USDe deployment across 10+ chains with $50 million USD weekly cross-chain volume. Circle CCTP V2 reduces settlement from 15 minutes to seconds. Wormhole and Cosmos IBC move beyond lock-and-mint to message-passing validation. USDe averaged $230 million+ monthly cross-chain volume since inception, while CCTP transferred $3+ billion volume last month.

Bridge evolution moves away from vulnerable "lock-and-mint" models toward light-client validation and message-passing, with native interoperability becoming standard rather than optional. Stablecoin issuers leverage protocols to reduce operational costs. Market impact shows stablecoin transactions across Layer 2s growing rapidly, with USDC on Arbitrum facilitating major Uniswap markets. Binance Smart Chain and Avalanche run major fiat-backed tokens. The multi-chain reality means stablecoins must be natively interoperable for success.

Expert predictions and industry outlook

McKinsey insights suggest "2025 may witness material shift across payments industry," with stablecoins transcending banking hours and global borders. True scaling requires paradigm shift from currency settlement to stablecoin retention, with financial institutions needing to integrate or risk irrelevance.

Citi GPS predicts "2025 will be blockchain's ChatGPT moment" with stablecoins igniting transformation. Issuance jumped from $200 billion (early 2025) to $280 billion (mid-2025), with institutional adoption accelerating through company listings and record fundraising.

Fireblocks 2025 survey found 90% of firms taking action on stablecoins today, with 48% citing speed as top benefit (cost cited last), 86% reporting infrastructure readiness, and 9 in 10 saying regulations drive adoption.

Regional insights show Latin America at 71% using stablecoins for cross-border payments (highest globally), Asia with 49% citing market expansion as primary driver, North America with 88% viewing regulations as green light rather than barrier, and Europe with 42% citing legacy risks and 37% demanding safer rails.

Security focus reveals 36% say better protection will drive scale, 41% demand speed, 34% require compliance as non-negotiable, with real-time threat detection becoming essential and enterprise-grade security fundamental to scaling.

Expert warnings from Atlantic Council's Ashley Lannquist highlight network transaction fees often overlooked, fragmentation of money across multiple stablecoins, wallet compatibility issues, bank deposit/liquidity challenges, and lack of legal entitlement to reserves (unsecured creditors).

Academic perspectives include Stanford's Darrell Duffie noting e-CNY enables Chinese surveillance of foreign businesses, Harvard research revealing TerraUST collapse information asymmetries where wealthy exited first, and Federal Reserve analysis showing algorithmic stablecoins as fundamentally flawed designs.

Timeline predictions for 2025-2027 include GENIUS Act framework solidifying corporate adoption, major retailers launching branded stablecoins, traditional payment companies pivoting or declining, and banking deposits beginning to flee to yield-bearing stablecoins. For 2027-2030: emerging markets achieving mass stablecoin adoption, energy and commodity tokenization scaling globally, universal interoperability creating unified global payment system, and AI-driven commerce emerging at massive scale. For 2030-2035: programmable money enabling impossible business models, complete payment system transformation, and stablecoins potentially reaching $10+ trillion in aggressive scenarios.

Strategic implications for Chinese cross-border business

Chinese companies face a complex calculus in adopting stablecoins for international expansion. The technology delivers undeniable benefits: 50-80% cost savings, settlement times reduced from days to minutes, 24/7 liquidity, and elimination of correspondent banking friction. Major Chinese enterprises including JD.com ($74-75 billion target for its stablecoins), Ant Group (applying across three jurisdictions), and Zoomlion ($3.3 billion offshore revenue using AxCNH) demonstrate real-world viability through Hong Kong's regulatory framework.

However, risks remain substantial. China's June 2025 full criminalization of crypto creates existential legal exposure for mainland operations. The March 2023 USDC depeg to $0.87 and May 2022 TerraUST collapse ($45-60 billion lost) demonstrate catastrophic potential. Tether's opacity—never completing a full independent audit, only backed 27.6% of time during 2016-2018 per CFTC, though now holding $120+ billion reserves—poses systemic concerns. Smart contract vulnerabilities caused $328+ million in 2024 losses alone, with over 150 attack incidents.

The dual-track approach China has adopted—strict mainland prohibition with Hong Kong experimentation—creates a viable pathway. PBOC Governor Pan Gongsheng's June 2025 acknowledgment that stablecoins are "reshaping the global payment system" signals policy evolution from complete rejection to strategic engagement. Hong Kong's August 1, 2025 effective stablecoin framework provides legal infrastructure for CNH-pegged stablecoins targeting Belt and Road trade ($3.2 trillion annually).

Yet the geopolitical dimension cannot be ignored. The US GENIUS Act aims to "maintain USD dominance amid China's digital currency challenge," generating an expected $1.75 trillion in new dollar stablecoins by 2028. Ninety-nine percent of current stablecoin activity is dollar-denominated, extending American monetary hegemony into digital finance. China's response—accelerating e-CNY international expansion through Project mBridge ($500 billion target for 2025, 20-30% of Chinese trade by 2030)—represents strategic competition where stablecoins serve as proxies for currency influence.

For Chinese enterprises, the strategic recommendations are:

First, utilize Hong Kong-licensed operations exclusively for legal compliance, avoiding mainland exposure to criminal liability. JD.com, Ant Group, and Standard Chartered's participation in HKMA's sandbox demonstrates this pathway's viability.

Second, diversify across multiple stablecoins (USDC, USDT, potentially AxCNH) to avoid concentration risk, maintaining 10-15% reserves in fiat as contingency for depegging events. The SVB crisis demonstrated cascade effects where 40% USDC collateral exposure caused DAI to depeg to $0.85.

Third, implement robust custody solutions with qualified custodians using multi-party computation (MPC) and hardware security modules (HSM), recognizing that stablecoin holders are unsecured creditors with no legal claim to reserves in bankruptcy.

Fourth, monitor e-CNY international expansion as the primary long-term strategic option. The September 2025 PBOC International Operations Center in Shanghai with cross-border digital payment platform, blockchain service platform, and digital asset platform represents state-backed infrastructure that will ultimately receive government preference over private stablecoins for Chinese companies.

Fifth, maintain contingency plans recognizing regulatory uncertainty. The same technology treated as payment instrument in Singapore may be deemed security in one US state and deposit in another, creating enforcement risks even without clear guidelines.

The 2025-2027 period represents a critical window as the GENIUS Act framework solidifies, MiCA's 18-month transition period ends (July 2026), and Hong Kong's licensing regime matures. Chinese companies that establish compliant stablecoin capabilities now—through proper legal structures, qualified custody, diversified banking relationships, and real-time compliance monitoring—will capture first-mover advantages in efficiency gains while the 90% of firms globally "taking action" on stablecoins reshape cross-border payment infrastructure.

The fundamental tension between dollar-backed stablecoins extending US monetary hegemony and China's digital yuan ambitions will define the next decade of international finance. Chinese companies navigating this landscape must balance immediate operational benefits against long-term strategic alignment, recognizing that today's efficiency gains through USDC and USDT may tomorrow face policy reversal if geopolitical tensions escalate. The Hong Kong gateway—with CNH-pegged stablecoins for Belt and Road trade and eventual e-CNY integration—offers the most sustainable path for Chinese enterprises seeking to modernize cross-border payments while remaining aligned with national strategy.

Stablecoins are not merely a technological upgrade to SWIFT—they represent a fundamental restructuring of global payment architecture where programmable money, 24/7 settlement, and blockchain transparency create entirely new business models. Chinese companies that master this infrastructure through compliant pathways will thrive in the next era of international commerce, while those that ignore these developments risk competitive obsolescence as the rest of the world settles transactions in seconds for fractions of traditional costs.

The $20 Billion Prediction Wars: How Kalshi and Polymarket Are Turning Information Into Wall Street's Newest Asset Class

· 8 min read
Dora Noda
Software Engineer

When Intercontinental Exchange—the parent company of the New York Stock Exchange—wrote a $2 billion check to Polymarket in October 2025, it wasn't betting on a crypto startup. It was buying a seat at the table for something far bigger: the transformation of information itself into a tradeable asset class. Six months later, prediction markets are processing $5.9 billion in weekly volume, AI agents contribute 30% of trades, and hedge funds are using these platforms to hedge Fed decisions with more precision than Treasury futures ever offered.

Welcome to Information Finance—the fastest-growing segment in crypto, and perhaps the most consequential infrastructure shift since stablecoins went mainstream.

From Speculative Casino to Institutional Infrastructure

The numbers tell the story of an industry that has fundamentally reinvented itself. In 2024, prediction markets were niche curiosities—entertaining for political junkies, dismissed by serious money. By January 2026, Piper Sandler anticipates the industry will see over 445 billion contracts traded this year, representing $222.5 billion in notional volume—up from 95 billion contracts in 2025.

The catalysts were threefold:

Regulatory Clarity: The CLARITY Act of 2025 officially classified event contracts as "digital commodities" under CFTC oversight. This regulatory green light solved the compliance hurdles that had kept major banks on the sidelines. Kalshi's May 2025 legal victory over the CFTC established that event contracts are derivatives, not gambling—creating a federal precedent that allows the platform to operate nationally while sportsbooks face state-by-state licensing.

Institutional Investment: Polymarket secured $2 billion from ICE at a $9 billion valuation, with the NYSE parent integrating prediction data into institutional feeds. Not to be outdone, Kalshi raised $1.3 billion across two rounds—$300 million in October, then $1 billion in December from Paradigm, a16z, Sequoia, and ARK Invest—reaching an $11 billion valuation. Combined, these two platforms are now worth $20 billion.

AI Integration: Autonomous AI systems now contribute over 30% of total volume. Tools like RSS3's MCP Server enable AI agents to scan news feeds and execute trades without human intervention—transforming prediction markets into 24/7 information processing engines.

The Great Prediction War: Kalshi vs. Polymarket

As of January 23, 2026, the competition is fierce. Kalshi commands 66.4% of market share, processing over $2 billion weekly. However, Polymarket holds approximately 47% odds of finishing the year as volume leader, while Kalshi follows at 34%. Newcomers like Robinhood are capturing 20% of market share—a reminder that this space remains wide open.

The platforms have carved out different niches:

Kalshi operates as a CFTC-regulated exchange, giving it access to U.S. retail traders but subjecting it to stricter oversight. Roughly 90% of its $43 billion in notional volume comes from sports-related event contracts. State gaming authorities in Nevada and Connecticut have issued cease-and-desist orders, arguing these contracts overlap with unlicensed gambling—a legal friction that creates uncertainty.

Polymarket runs on crypto rails (Polygon), offering permissionless access globally but facing regulatory pressure in key markets. European MiCA regulations require full authorization for EU access in 2026. The platform's decentralized architecture provides censorship resistance but limits institutional adoption in compliance-heavy jurisdictions.

Both are betting that the long-term opportunity extends far beyond their current focus. The real prize isn't sports betting or election markets—it's becoming the Bloomberg terminal of collective beliefs.

Hedging the Unhedgeable: How Wall Street Uses Prediction Markets

The most revolutionary development isn't volume growth—it's the emergence of entirely new hedging strategies that traditional derivatives couldn't support.

Fed Rate Hedging: Current Kalshi odds place a 98% probability on the Fed holding rates steady at the January 28 meeting. But the real action is in March 2026 contracts, where a 74% chance of a 25-basis-point cut has created high-stakes hedging ground for those fearing a growth slowdown. Large funds use these binary contracts—either the Fed cuts or it doesn't—to "de-risk" portfolios with more precision than Treasury futures offer.

Inflation Insurance: Following the December 2025 CPI print of 2.7%, Polymarket users are actively trading 2026 inflation caps. Currently, there's a 30% probability priced in for inflation to rebound and stay above 3% for the year. Unlike traditional inflation swaps that require institutional minimums, these contracts are accessible with as little as $1—allowing individual investors to buy "inflation insurance" for their cost-of-living expenses.

Government Shutdown Protection: Retailers offset government shutdown risks through prediction contracts. Mortgage lenders hedge regulatory decisions. Tech investors use CPI contracts to protect equity portfolios.

Speed Advantage: Throughout 2025, prediction markets successfully anticipated three out of three Fed pivots several weeks before mainstream financial press caught up. This "speed gap" is why firms like Saba Capital Management now use Kalshi's CPI contracts to hedge inflation directly, bypassing bond-market proxy complexities.

The AI-Powered Information Oracle

Perhaps nothing distinguishes 2026 prediction markets more than AI integration. Autonomous systems aren't just participating—they're fundamentally changing how these markets function.

AI agents contribute over 30% of trading volume, scanning news feeds, social media, and economic data to execute trades faster than human traders can process information. This creates a self-reinforcing loop: AI-driven liquidity attracts more institutional flow, which improves price discovery, which makes AI strategies more profitable.

The implications extend beyond trading:

  • Real-time Sentiment Analysis: Corporations integrate AI-powered prediction feeds into dashboards for internal risk and sales forecasting
  • Institutional Data Licensing: Platforms license enriched market data as alpha to hedge funds and trading firms
  • Automated News Response: Within seconds of a major announcement, prediction prices adjust—often before traditional markets react

This AI layer is why Bernstein's analysts argue that "blockchain rails, AI analysis and news feeds" aren't adjacent trends—they're merging inside prediction platforms to create a new category of financial infrastructure.

Beyond Betting: Information as an Asset Class

The transformation from "speculative casino" to "information infrastructure" reflects a deeper insight: prediction markets price what other instruments can't.

Traditional derivatives let you hedge interest rate moves, currency fluctuations, and commodity prices. But they're terrible at hedging:

  • Regulatory decisions (new tariffs, policy changes)
  • Political outcomes (elections, government formation)
  • Economic surprises (CPI prints, employment data)
  • Geopolitical events (conflicts, trade deals)

Prediction markets fill this gap. A retail investor concerned about inflationary impacts can buy "CPI exceeds 3.1%" for cents, effectively purchasing inflation insurance. A multinational worried about trade policy can hedge tariff risk directly.

This is why ICE integrated Polymarket's data into institutional feeds—it's not about the betting platform, it's about the information layer. Prediction markets aggregate beliefs more efficiently than polls, surveys, or analyst estimates. They're becoming the real-time truth layer for economic forecasting.

The Risks and Regulatory Tightrope

Despite explosive growth, significant risks remain:

Regulatory Arbitrage: Kalshi's federal precedent doesn't protect it from state-level gaming regulators. The Nevada and Connecticut cease-and-desist orders signal potential jurisdictional conflicts. If prediction markets are classified as gambling in key states, the domestic retail market could fragment.

Concentration Risk: With Kalshi and Polymarket commanding combined $20 billion valuations, the industry is highly concentrated. A regulatory action against either platform could crash sector-wide confidence.

AI Manipulation: As AI contributes 30% of volume, questions emerge about market integrity. Can AI agents collude? How do platforms detect coordinated manipulation by autonomous systems? These governance questions remain unresolved.

Crypto Dependency: Polymarket's reliance on crypto rails (Polygon, USDC) ties its fate to crypto market conditions and stablecoin regulatory outcomes. If USDC faces restrictions, Polymarket's settlement infrastructure becomes uncertain.

What Comes Next: The $222 Billion Opportunity

The trajectory is clear. Piper Sandler's projection of $222.5 billion in 2026 notional volume would make prediction markets larger than many traditional derivatives categories. Several developments to watch:

New Market Categories: Beyond politics and Fed decisions, expect prediction markets for climate events, AI development milestones, corporate earnings surprises, and technological breakthroughs.

Bank Integration: Major banks have largely stayed on the sidelines due to compliance concerns. If regulatory clarity continues, expect custody and prime brokerage services to emerge for institutional prediction trading.

Insurance Products: The line between prediction contracts and insurance is thin. Parametric insurance products built on prediction market infrastructure could emerge—earthquake insurance that pays based on magnitude readings, crop insurance tied to weather outcomes.

Global Expansion: Both Kalshi and Polymarket are primarily U.S.-focused. International expansion—particularly in Asia and LATAM—represents significant growth potential.

The prediction market wars of 2026 aren't about who processes more sports bets. They're about who builds the infrastructure for Information Finance—the asset class where beliefs become tradeable, hedgeable, and ultimately, monetizable.

For the first time, information has a market price. And that changes everything.


For developers building on the blockchain infrastructure that powers prediction markets and DeFi applications, BlockEden.xyz provides enterprise-grade API services across Ethereum, Polygon, and other chains—the same foundational layers that platforms like Polymarket rely upon.