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The Great Financial Convergence is Already Here

· 23 min read
Dora Noda
Software Engineer

The question of whether traditional finance is eating DeFi or DeFi is disrupting TradFi has been definitively answered in 2024-2025: neither is consuming the other. Instead, a sophisticated convergence is underway where TradFi institutions are deploying $21.6 billion per quarter into crypto infrastructure while simultaneously DeFi protocols are building institutional-grade compliance layers to accommodate regulated capital. JPMorgan has processed over $1.5 trillion in blockchain transactions, BlackRock's tokenized fund controls $2.1 billion across six public blockchains, and 86% of surveyed institutional investors now have or plan crypto exposure. Yet paradoxically, most of this capital flows through regulated wrappers rather than directly into DeFi protocols, revealing a hybrid "OneFi" model emerging where public blockchains serve as infrastructure with compliance features layered on top.

The five industry leaders examined—Thomas Uhm of Jito, TN of Pendle, Nick van Eck of Agora, Kaledora Kiernan-Linn of Ostium, and David Lu of Drift—present remarkably aligned perspectives despite operating in different segments. They universally reject the binary framing, instead positioning their protocols as bridges enabling bidirectional capital flow. Their insights reveal a nuanced convergence timeline: stablecoins and tokenized treasuries gaining immediate adoption, perpetual markets bridging before tokenization can achieve liquidity, and full institutional DeFi engagement projected for 2027-2030 once legal enforceability concerns are resolved. The infrastructure exists today, the regulatory frameworks are materializing (MiCA implemented December 2024, GENIUS Act signed July 2025), and the capital is mobilizing at unprecedented scale. The financial system isn't experiencing disruption—it's experiencing integration.

Traditional finance has moved beyond pilots to production-scale blockchain deployment

The most decisive evidence of convergence comes from what major banks accomplished in 2024-2025, moving from experimental pilots to operational infrastructure processing trillions in transactions. JPMorgan's transformation is emblematic: the bank rebranded its Onyx blockchain platform to Kinexys in November 2024, having already processed over $1.5 trillion in transactions since inception with daily volumes averaging $2 billion. More significantly, in June 2025, JPMorgan launched JPMD, a deposit token on Coinbase's Base blockchain—marking the first time a commercial bank placed deposit-backed products on a public blockchain network. This isn't experimental—it's a strategic pivot to make "commercial banking come on-chain" with 24/7 settlement capabilities that directly compete with stablecoins while offering deposit insurance and interest-bearing capabilities.

BlackRock's BUIDL fund represents the asset management analog to JPMorgan's infrastructure play. Launched in March 2024, the BlackRock USD Institutional Digital Liquidity Fund surpassed $1 billion in assets under management within 40 days and now controls over $2.1 billion deployed across Ethereum, Aptos, Arbitrum, Avalanche, Optimism, and Polygon. CEO Larry Fink's vision that "every stock, every bond will be on one general ledger" is being operationalized through concrete products, with BlackRock planning to tokenize ETFs representing $2 trillion in potential assets. The fund's structure demonstrates sophisticated integration: backed by cash and U.S. Treasury bills, it distributes yield daily via blockchain, enables 24/7 peer-to-peer transfers, and already serves as collateral on crypto exchanges like Crypto.com and Deribit. BNY Mellon, custodian for the BUIDL fund and the world's largest with $55.8 trillion in assets under custody, began piloting tokenized deposits in October 2025 to transform its $2.5 trillion daily payment volume onto blockchain infrastructure.

Franklin Templeton's BENJI fund showcases multi-chain strategy as competitive advantage. The Franklin OnChain U.S. Government Money Fund launched in 2021 as the first U.S.-registered mutual fund on blockchain and has since expanded to eight different networks: Stellar, Polygon, Avalanche, Aptos, Arbitrum, Base, Ethereum, and BNB Chain. With $420-750 million in assets, BENJI enables daily yield accrual via token airdrops, peer-to-peer transfers, and potential DeFi collateral use—essentially transforming a traditional money market fund into a composable DeFi primitive while maintaining SEC registration and compliance.

The custody layer reveals banks' strategic positioning. Goldman Sachs holds $2.05 billion in Bitcoin and Ethereum ETFs as of late 2024, representing a 50% quarterly increase, while simultaneously investing $135 million with Citadel into Digital Asset's Canton Network for institutional blockchain infrastructure. Fidelity, which began mining Bitcoin in 2014 and launched Fidelity Digital Assets in 2018, now provides institutional custody as a limited purpose trust company licensed by New York State. These aren't diversionary experiments—they represent core infrastructure buildout by institutions collectively managing over $10 trillion in assets.

Five DeFi leaders converge on "hybrid rails" as the path forward

Thomas Uhm's journey from Jane Street Capital to Jito Foundation crystallizes the institutional bridge thesis. After 22 years at Jane Street, including as Head of Institutional Crypto, Uhm observed "how crypto has shifted from the fringes to a core pillar of the global financial system" before joining Jito as Chief Commercial Officer in April 2025. His signature achievement—the VanEck JitoSOL ETF filing in August 2025—represents a landmark moment: the first spot Solana ETF 100% backed by a liquid staking token. Uhm worked directly with ETF issuers, custodians, and the SEC through months of "collaborative policy outreach" beginning in February 2025, culminating in regulatory clarity that liquid staking tokens structured without centralized control are not securities.

Uhm's perspective rejects absorption narratives in favor of convergence through superior infrastructure. He positions Jito's Block Assembly Marketplace (BAM), launched July 2025, as creating "auditable markets with execution assurances that rival traditional finance" through TEE-based transaction sequencing, cryptographic attestations for audit trails, and deterministic execution guarantees institutions demand. His critical insight: "A healthy market has makers economically incentivized by genuine liquidity demand"—noting that crypto market making often relies on unsustainable token unlocks rather than bid-ask spreads, meaning DeFi must adopt TradFi's sustainable economic models. Yet he also identifies areas where crypto improves on traditional finance: expanded trading hours, more efficient intraday collateral movements, and composability that enables novel financial products. His vision is bidirectional learning where TradFi brings regulatory frameworks and risk management sophistication while DeFi contributes efficiency innovations and transparent market structure.

TN, CEO and founder of Pendle Finance, articulates the most comprehensive "hybrid rails" strategy among the five leaders. His "Citadels" initiative launched in 2025 explicitly targets three institutional bridges: PT for TradFi (KYC-compliant products packaging DeFi yields for regulated institutions through isolated SPVs managed by regulated investment managers), PT for Islamic Funds (Shariah-compliant products targeting the $3.9 trillion Islamic finance sector growing at 10% annually), and non-EVM expansion to Solana and TON networks. TN's Pendle 2025: Zenith roadmap positions the protocol as "the doorway to your yield experience" serving everyone "from a degenerate DeFi ape to a Middle Eastern sovereign fund."

His key insight centers on market size asymmetry: "Limiting ourselves only to DeFi-native yields would be missing the bigger picture" given that the interest rate derivatives market is $558 trillion—roughly 30,000 times larger than Pendle's current market. The Boros platform launched in August 2025 operationalizes this vision, designed to support "any form of yield, from DeFi protocols to CeFi products, and even traditional benchmarks like LIBOR or mortgage rates." TN's 10-year vision sees "DeFi becoming a fully integrated part of the global financial system" where "capital will flow freely between DeFi and TradFi, creating a dynamic landscape where innovation and regulation coexist." His partnership with Converge blockchain (launching Q2 2025 with Ethena Labs and Securitize) creates a settlement layer blending permissionless DeFi with KYC-compliant tokenized RWAs including BlackRock's BUIDL fund.

Nick van Eck of Agora provides the crucial stablecoin perspective, tempering crypto industry optimism with realism informed by his traditional finance background (his grandfather founded VanEck, the $130+ billion asset management firm). After 22 years at Jane Street, van Eck projects that institutional stablecoin adoption will take 3-4 years, not 1-2 years, because "we live in our own bubble in crypto" and most CFOs and CEOs of large U.S. corporations "aren't necessarily aware of the developments in crypto, even when it comes to stablecoins." Having conversations with "some of the largest hedge funds in the US," he finds "there's still a lack of understanding when it comes to the role that stablecoins play." The real curve is educational, not technological.

Yet van Eck's long-term conviction is absolute. He recently tweeted about discussions to move "$500M-$1B in monthly cross-border flows to stables," describing stablecoins as positioned to "vampire liquidity from the correspondent banking system" with "100x improvement" in efficiency. His strategic positioning of Agora emphasizes "credible neutrality"—unlike USDC (which shares revenue with Coinbase) or Tether (opaque) or PYUSD (PayPal subsidiary competing with customers), Agora operates as infrastructure sharing reserve yield with partners building on the platform. With institutional partnerships including State Street (custodian with $49 trillion in assets), VanEck (asset manager), PwC (auditor), and banking partners Cross River Bank and Customers Bank, van Eck is constructing TradFi-grade infrastructure for stablecoin issuance while deliberately avoiding yield-bearing structures to maintain broader regulatory compliance and market access.

Perpetual markets may frontrun tokenization in bringing traditional assets on-chain

Kaledora Kiernan-Linn of Ostium Labs presents perhaps the most contrarian thesis among the five leaders: "perpification" will precede tokenization as the primary mechanism for bringing traditional financial markets on-chain. Her argument is rooted in liquidity economics and operational efficiency. Comparing tokenized solutions to Ostium's synthetic perpetuals, she notes users "pay roughly 97x more to trade tokenized TSLA" on Jupiter than through Ostium's synthetic stock perpetuals—a liquidity differential that renders tokenization commercially unviable for most traders despite being technically functional.

Kiernan-Linn's insight identifies the core challenge with tokenization: it requires coordination of asset origination, custody infrastructure, regulatory approval, composable KYC-enforced token standards, and redemption mechanisms—massive operational overhead before a single trade occurs. Perpetuals, by contrast, "only require sufficient liquidity and robust data feeds—no need for underlying asset to exist on-chain." They avoid security token frameworks, eliminate counterparty custody risk, and provide superior capital efficiency through cross-margining capabilities. Her platform has achieved remarkable validation: Ostium ranks #3 in weekly revenues on Arbitrum behind only Uniswap and GMX, with over $14 billion in volume and nearly $7 million in revenue, having 70x'd revenues in six months from February to July 2025.

The macroeconomic validation is striking. During weeks of macroeconomic instability in 2024, RWA perpetual volumes on Ostium outpaced crypto volumes by 4x, and 8x on days with heightened instability. When China announced QE measures in late September 2024, FX and commodities perpetuals volumes surged 550% in a single week. This demonstrates that when traditional market participants need to hedge or trade macro events, they're choosing DeFi perpetuals over both tokenized alternatives and sometimes even traditional venues—validating the thesis that derivatives can bridge markets faster than spot tokenization.

Her strategic vision targets the 80 million monthly active forex traders in the $50 trillion traditional retail FX/CFD market, positioning perpetuals as "fundamentally better instruments" than the cash-settled synthetic products offered by FX brokers for years, thanks to funding rates that incentivize market balance and self-custodial trading that eliminates adversarial platform-user dynamics. Co-founder Marco Antonio predicts "the retail FX trading market will be disrupted in the next 5 years and it will be done by perps." This represents DeFi not absorbing TradFi infrastructure but instead out-competing it by offering superior products to the same customer base.

David Lu of Drift Protocol articulates the "permissionless institutions" framework that synthesizes elements from the other four leaders' approaches. His core thesis: "RWA as the fuel for a DeFi super-protocol" that unites five financial primitives (borrow/lend, derivatives, prediction markets, AMM, wealth management) into capital-efficient infrastructure. At Token2049 Singapore in October 2024, Lu emphasized that "the key is infrastructure, not speculation" and warned that "Wall Street's move has started. Do not chase hype. Put your assets on-chain."

Drift's May 2025 launch of "Drift Institutional" operationalizes this vision through white-glove service guiding institutions in bringing real-world assets into Solana's DeFi ecosystem. The flagship partnership with Securitize to design institutional pools for Apollo's $1 billion Diversified Credit Fund (ACRED) represents the first institutional DeFi product on Solana, with pilot users including Wormhole Foundation, Solana Foundation, and Drift Foundation testing "onchain structures for their private credit and treasury management strategies." Lu's innovation eliminates the traditional $100 million+ minimums that confined credit facility-based lending to the largest institutions, instead enabling comparable structures on-chain with dramatically lower minimums and 24/7 accessibility.

The Ondo Finance partnership in June 2024 demonstrated Drift's capital efficiency thesis: integrating tokenized treasury bills (USDY, backed by short-term U.S. treasuries generating 5.30% APY) as trading collateral meant users "no longer have to choose between generating yield on stablecoins or using them as collateral for trading"—they can earn yield and trade simultaneously. This composability, impossible in traditional finance where treasuries in custody accounts can't simultaneously serve as perpetuals margin, exemplifies how DeFi infrastructure enables superior capital efficiency even for traditional financial instruments. Lu's vision of "permissionless institutions" suggests the future isn't TradFi adopting DeFi technology or DeFi professionalizing toward TradFi standards, but rather creating entirely new institutional forms that combine decentralization with professional-grade capabilities.

Regulatory clarity is accelerating convergence while revealing implementation gaps

The regulatory landscape transformed dramatically in 2024-2025, shifting from uncertainty to actionable frameworks in both Europe and the United States. MiCA (Markets in Crypto-Assets) achieved full implementation in the EU on December 30, 2024, with remarkable compliance velocity: 65%+ of EU crypto businesses achieved compliance by Q1 2025, 70%+ of EU crypto transactions now occur on MiCA-compliant exchanges (up from 48% in 2024), and regulators issued €540 million in penalties to non-compliant firms. The regulation drove a 28% increase in stablecoin transactions within the EU and catalyzed EURC's explosive growth from $47 million to $7.5 billion monthly volume—a 15,857% increase—between June 2024 and June 2025.

In the United States, the GENIUS Act signed in July 2025 established the first federal stablecoin legislation, creating state-based licensing with federal oversight for issuers exceeding $10 billion in circulation, mandating 1:1 reserve backing, and requiring supervision by the Federal Reserve, OCC, or NCUA. This legislative breakthrough directly enabled JPMorgan's JPMD deposit token launch and is expected to catalyze similar initiatives from other major banks. Simultaneously, the SEC and CFTC launched joint harmonization efforts through "Project Crypto" and "Crypto Sprint" in July-August 2025, holding a joint roundtable on September 29, 2025, focused on "innovation exemptions" for peer-to-peer DeFi trading and publishing joint staff guidance on spot crypto products.

Thomas Uhm's experience navigating this regulatory evolution is instructive. His move from Jane Street to Jito was directly tied to regulatory developments—Jane Street reduced crypto operations in 2023 due to "regulatory challenges," and Uhm's appointment at Jito came as this landscape cleared. The VanEck JitoSOL ETF achievement required months of "collaborative policy outreach" beginning in February 2025, culminating in SEC guidance in May and August 2025 clarifying that liquid staking tokens structured without centralized control are not securities. Uhm's role explicitly involves "positioning the Jito Foundation for a future shaped by regulatory clarity"—indicating he sees this as the key enabler of convergence, not just an accessory.

Nick van Eck designed Agora's architecture around anticipated regulation, deliberately avoiding yield-bearing stablecoins despite competitive pressure because he expected "the US government and the SEC would not allow interest-bearing stablecoins." This regulatory-first design philosophy positions Agora to serve U.S. entities once legislation is fully enacted while maintaining international focus. His prediction that institutional adoption requires 3-4 years rather than 1-2 years stems from recognizing that regulatory clarity, while necessary, is insufficient—education and internal operational changes at institutions require additional time.

Yet critical gaps persist. DeFi protocols themselves remain largely unaddressed by current frameworks—MiCA explicitly excludes "fully decentralized protocols" from its scope, with EU policymakers planning DeFi-specific regulations for 2026. The FIT21 bill, which would establish clear CFTC jurisdiction over "digital commodities" versus SEC oversight of securities-classified tokens, passed the House 279-136 in May 2024 but remains stalled in the Senate as of March 2025. The EY institutional survey reveals that 52-57% of institutions cite "uncertain regulatory environment" and "unclear legal enforceability of smart contracts" as top barriers—suggesting that while frameworks are materializing, they haven't yet provided sufficient certainty for the largest capital pools (pensions, endowments, sovereign wealth funds) to fully engage.

Institutional capital is mobilizing at unprecedented scale but flowing through regulated wrappers

The magnitude of institutional capital entering crypto infrastructure in 2024-2025 is staggering. $21.6 billion in institutional investments flowed into crypto in Q1 2025 alone, with venture capital deployment reaching $11.5 billion across 2,153 transactions in 2024 and analysts projecting $18-25 billion total for 2025. BlackRock's IBIT Bitcoin ETF accumulated $400 billion+ in assets under management within approximately 200 days of launch—the fastest ETF growth in history. In May 2025 alone, BlackRock and Fidelity collectively purchased $590 million+ in Bitcoin and Ethereum, with Goldman Sachs revealing $2.05 billion in combined Bitcoin and Ethereum ETF holdings by late 2024, representing a 50% quarter-over-quarter increase.

The EY-Coinbase institutional survey of 352 institutional investors in January 2025 quantifies this momentum: 86% of institutions have exposure to digital assets or plan to invest in 2025, 85% increased allocations in 2024, and 77% plan to increase in 2025. Most significantly, 59% plan to allocate more than 5% of AUM to crypto in 2025, with U.S. respondents particularly aggressive at 64% versus 48% for European and other regions. The allocation preferences reveal sophistication: 73% hold at least one altcoin beyond Bitcoin and Ethereum, 60% prefer registered vehicles (ETPs) over direct holdings, and 68% express interest in both diversified crypto index ETPs and single-asset altcoin ETPs for Solana and XRP.

Yet a critical disconnect emerges when examining DeFi engagement specifically. Only 24% of surveyed institutions currently engage with DeFi protocols, though 75% expect to engage by 2027—suggesting a potential tripling of institutional DeFi participation within two years. Among those engaged or planning engagement, use cases center on derivatives (40%), staking (38%), lending (34%), and access to altcoins (32%). Stablecoin adoption is higher at 84% using or expressing interest, with 45% currently using or holding stablecoins and hedge funds leading at 70% adoption. For tokenized assets, 57% express interest and 72% plan to invest by 2026, focusing on alternative funds (47%), commodities (44%), and equities (42%).

The infrastructure to serve this capital exists and functions well. Fireblocks processed $60 billion in institutional digital asset transactions in 2024, custody providers like BNY Mellon and State Street hold $2.1 billion+ in digital assets with full regulatory compliance, and institutional-grade solutions from Fidelity Digital Assets, Anchorage Digital, BitGo, and Coinbase Custody provide enterprise security and operational controls. Yet the infrastructure's existence hasn't translated to massive capital flows directly into DeFi protocols. The tokenized private credit market reached $17.5 billion (32% growth in 2024), but this capital primarily comes from crypto-native sources rather than traditional institutional allocators. As one analysis noted, "Large institutional capital is NOT flowing to DeFi protocols" despite infrastructure maturity, with the primary barrier being "legal enforceability concerns that prevent pension and endowment participation."

This reveals the paradox of current convergence: banks like JPMorgan and asset managers like BlackRock are building on public blockchains and creating composable financial products, but they're doing so within regulated wrappers (ETFs, tokenized funds, deposit tokens) rather than directly utilizing permissionless DeFi protocols. The capital isn't flowing through Aave, Compound, or Uniswap interfaces in meaningful institutional scale—it's flowing into BlackRock's BUIDL fund, which uses blockchain infrastructure while maintaining traditional legal structures. This suggests convergence is occurring at the infrastructure layer (blockchains, settlement rails, tokenization standards) while the application layer diverges into regulated institutional products versus permissionless DeFi protocols.

The verdict: convergence through layered systems, not absorption

Synthesizing perspectives across all five industry leaders and market evidence reveals a consistent conclusion: neither TradFi nor DeFi is "eating" the other. Instead, a layered convergence model is emerging where public blockchains serve as neutral settlement infrastructure, compliance and identity systems layer on top, and both regulated institutional products and permissionless DeFi protocols operate within this shared foundation. Thomas Uhm's framework of "crypto as core pillar of the global financial system" rather than peripheral experiment captures this transition, as does TN's vision of "hybrid rails" and Nick van Eck's emphasis on "credible neutrality" in infrastructure design.

The timeline reveals phased convergence with clear sequencing. Stablecoins achieved critical mass first, with $210 billion market capitalization and institutional use cases spanning yield generation (73%), transactional convenience (71%), foreign exchange (69%), and internal cash management (68%). JPMorgan's JPMD deposit token and similar initiatives from other banks represent traditional finance's response—offering stablecoin-like capabilities with deposit insurance and interest-bearing features that may prove more attractive to regulated institutions than uninsured alternatives like USDT or USDC.

Tokenized treasuries and money market funds achieved product-market fit second, with BlackRock's BUIDL reaching $2.1 billion and Franklin Templeton's BENJI exceeding $400 million. These products demonstrate that traditional assets can successfully operate on public blockchains with traditional legal structures intact. The $10-16 trillion tokenized asset market projected by 2030 by Boston Consulting Group suggests this category will dramatically expand, potentially becoming the primary bridge between traditional finance and blockchain infrastructure. Yet as Nick van Eck cautions, institutional adoption requires 3-4 years for education and operational integration, tempering expectations for immediate transformation despite infrastructure readiness.

Perpetual markets are bridging traditional asset trading before spot tokenization achieves scale, as Kaledora Kiernan-Linn's thesis demonstrates. With 97x better pricing than tokenized alternatives and revenue growth that placed Ostium among top-3 Arbitrum protocols, synthetic perpetuals prove that derivatives markets can achieve liquidity and institutional relevance faster than spot tokenization overcomes regulatory and operational hurdles. This suggests that for many asset classes, DeFi-native derivatives may establish price discovery and risk transfer mechanisms while tokenization infrastructure develops, rather than waiting for tokenization to enable these functions.

Direct institutional engagement with DeFi protocols represents the final phase, currently at 24% adoption but projected to reach 75% by 2027. David Lu's "permissionless institutions" framework and Drift's institutional service offering exemplify how DeFi protocols are building white-glove onboarding and compliance features to serve this market. Yet the timeline may extend longer than protocols hope—legal enforceability concerns, operational complexity, and internal expertise gaps mean that even with infrastructure readiness and regulatory clarity, large-scale pension and endowment capital may flow through regulated wrappers for years before directly engaging permissionless protocols.

The competitive dynamics suggest TradFi holds advantages in trust, regulatory compliance, and established customer relationships, while DeFi excels in capital efficiency, composability, transparency, and operational cost structure. JPMorgan's ability to launch JPMD with deposit insurance and integration into traditional banking systems demonstrates TradFi's regulatory moat. Yet Drift's ability to enable users to simultaneously earn yield on treasury bills while using them as trading collateral—impossible in traditional custody arrangements—showcases DeFi's structural advantages. The convergence model emerging suggests specialized functions: settlement and custody gravitating toward regulated entities with insurance and compliance, while trading, lending, and complex financial engineering gravitating toward composable DeFi protocols offering superior capital efficiency and innovation velocity.

Geographic fragmentation will persist, with Europe's MiCA creating different competitive dynamics than U.S. frameworks, and Asian markets potentially leapfrogging Western adoption in certain categories. Nick van Eck's observation that "financial institutions outside of the U.S. will be quicker to move" is validated by Circle's EURC growth, Asia-focused stablecoin adoption, and the Middle Eastern sovereign wealth fund interest that TN highlighted in his Pendle strategy. This suggests convergence will manifest differently across regions, with some jurisdictions seeing deeper institutional DeFi engagement while others maintain stricter separation through regulated products.

What this means for the next five years

The 2025-2030 period will likely see convergence acceleration across multiple dimensions simultaneously. Stablecoins reaching 10% of world money supply (Circle CEO's prediction for 2034) appears achievable given current growth trajectories, with bank-issued deposit tokens like JPMD competing with and potentially displacing private stablecoins for institutional use cases while private stablecoins maintain dominance in emerging markets and cross-border transactions. The regulatory frameworks now materializing (MiCA, GENIUS Act, anticipated DeFi regulations in 2026) provide sufficient clarity for institutional capital deployment, though operational integration and education require the 3-4 year timeline Nick van Eck projects.

Tokenization will scale dramatically, potentially reaching BCG's $16 trillion projection by 2030 if current growth rates (32% annually for tokenized private credit) extend across asset classes. Yet tokenization serves as infrastructure rather than end-state—the interesting innovation occurs in how tokenized assets enable new financial products and strategies impossible in traditional systems. TN's vision of "every type of yield tradable through Pendle"—from DeFi staking to TradFi mortgage rates to tokenized corporate bonds—exemplifies how convergence enables previously impossible combinations. David Lu's thesis of "RWAs as fuel for DeFi super-protocols" suggests tokenized traditional assets will unlock order-of-magnitude increases in DeFi sophistication and scale.

The competitive landscape will feature both collaboration and displacement. Banks will lose cross-border payment revenue to blockchain rails offering 100x efficiency improvements, as Nick van Eck projects stablecoins will "vampire liquidity from the correspondent banking system." Retail FX brokers face disruption from DeFi perpetuals offering better economics and self-custody, as Kaledora Kiernan-Linn's Ostium demonstrates. Yet banks gain new revenue streams from custody services, tokenization platforms, and deposit tokens that offer superior economics to traditional checking accounts. Asset managers like BlackRock gain efficiency in fund administration, 24/7 liquidity provision, and programmable compliance while reducing operational overhead.

For DeFi protocols, survival and success require navigating the tension between permissionlessness and institutional compliance. Thomas Uhm's emphasis on "credible neutrality" and infrastructure that enables rather than extracts value represents the winning model. Protocols that layer compliance features (KYC, clawback capabilities, geographic restrictions) as opt-in modules while maintaining permissionless core functionality can serve both institutional and retail users. TN's Citadels initiative—creating parallel KYC-compliant institutional access alongside permissionless retail access—exemplifies this architecture. Protocols unable to accommodate institutional compliance requirements may find themselves limited to crypto-native capital, while those that compromise core permissionlessness for institutional features risk losing their DeFi-native advantages.

The ultimate trajectory points toward a financial system where blockchain infrastructure is ubiquitous but invisible, similar to how TCP/IP became the universal internet protocol while users remain unaware of underlying technology. Traditional financial products will operate on-chain with traditional legal structures and regulatory compliance, permissionless DeFi protocols will continue enabling novel financial engineering impossible in regulated contexts, and most users will interact with both without necessarily distinguishing which infrastructure layer powers each service. The question shifts from "TradFi eating DeFi or DeFi eating TradFi" to "which financial functions benefit from decentralization versus regulatory oversight"—with different answers for different use cases producing a diverse, polyglot financial ecosystem rather than winner-take-all dominance by either paradigm.

Restaking on Ethereum and EigenLayer’s “Security-as-a-Service”

· 43 min read
Dora Noda
Software Engineer

Restaking Explained: In Ethereum’s proof-of-stake model, validators normally stake ETH to secure the network and earn rewards, with the risk of slashing if they misbehave. Restaking allows this same staked ETH (or its liquid staking derivatives) to be reused to secure additional protocols or services. EigenLayer introduced restaking via smart contracts that let ETH stakers opt in to extend their security to new systems in exchange for extra yield. In practice, an Ethereum validator can register with EigenLayer and grant its contracts permission to impose additional slashing conditions specified by external protocols. If the validator performs maliciously on any opted-in service, the EigenLayer contracts can slash their staked ETH, just as Ethereum would for consensus violations. This mechanism effectively transforms Ethereum’s robust staking security into a composable “Security-as-a-Service”: developers can borrow Ethereum’s economic security to bootstrap new projects, rather than starting their own validator network from scratch. By leveraging the 31M+ ETH already securing Ethereum, EigenLayer’s restaking creates a “pooled security” marketplace where multiple services share the same trusted capital base.

EigenLayer’s Approach: EigenLayer is implemented as a set of Ethereum smart contracts that coordinate this restaking process. Validators (or ETH holders) who wish to restake either deposit their liquid staking tokens or, in the case of native stakers, redirect their withdrawal credentials to an EigenLayer-managed contract (often called an EigenPod). This ensures EigenLayer can enforce slashing by locking or burning the underlying ETH if needed. Restakers always retain ownership of their ETH (withdrawable after an exit/escrow period), but they opt-in to new slashing rules on top of Ethereum’s. In return, they become eligible for additional restaking rewards paid by the services they secure. The end result is a modular security layer: Ethereum’s validator set and stake are “rented out” to external protocols. As EigenLayer’s founder Sreeram Kannan puts it, this creates a “Verifiable Cloud” for Web3 – analogous to how AWS offers computing services, EigenLayer offers security as a service to developers. Early adoption has been strong: by mid-2024 over 4.9 million ETH (~$15B) was restaked into EigenLayer, demonstrating demand from stakers to maximize yield and from new protocols to bootstrap with minimal overhead. In summary, restaking on Ethereum repurposes existing trust (staked ETH) to secure new applications, and EigenLayer provides the infrastructure to make this process composable and permissionless.

Design Patterns of Actively Validated Services (AVSs)

What are AVSs? Actively Validated Services (AVSs) refer to any decentralized service or network that requires its own set of validators and consensus rules, but can outsource security to a restaking platform like EigenLayer. In other words, an AVS is an external protocol (outside the Ethereum L1) that hires Ethereum’s validators to perform some verification work. Examples include sidechains or rollups, data availability layers, oracle networks, bridges, shared sequencers, decentralized compute modules, and more. Each AVS defines a unique distributed validation task – for instance, an oracle might require signing price feeds, while a data availability chain (like EigenDA) requires storing and attesting to data blobs. These services run their own software and possibly their own consensus among participating operators, but rely on shared security: the economic stake backing them is provided by restaked ETH (or other assets) from Ethereum validators, rather than a native token for each new network.

Architecture and Roles: EigenLayer’s architecture cleanly separates the roles in this shared security model:

  • Restakers – ETH stakers (or LST holders) who opt in to secure AVSs. They deposit into EigenLayer contracts, extending their staked capital as collateral for multiple services. Restakers can choose which AVSs to support, directly or via delegation, and earn rewards from those services. Crucially, they bear slashing risk if any supported AVS reports misbehavior.

  • Operators – Node operators who actually run the off-chain client software for each AVS. They are analogous to miners/validators for the AVS’s network. In EigenLayer, an operator must register and be approved (initially whitelisted) to join, and can then opt in to serve specific AVSs. Restakers delegate their stake to operators (if they don’t run nodes themselves), so operators aggregate stake from potentially many restakers. Each operator is subject to the slashing conditions of whatever AVS they support, and they earn fees or rewards for their service. This creates a marketplace of operators competing on performance and trustworthiness, since AVSs will prefer competent operators and restakers will prefer those who maximize rewards without incurring slashing.

  • AVS (Actively Validated Service) – The external protocol or service itself, which typically consists of two components: (1) an off-chain binary or client that operators run to perform the service (e.g. a sidechain node software), and (2) an on-chain AVS contract deployed on Ethereum that interfaces with EigenLayer. The AVS’s Ethereum contract encodes the rules for that service’s slashing and reward distribution. For example, it might define that if two conflicting signatures are submitted (proof of equivocation by an operator), a slash of X ETH is executed on that operator’s stake. The AVS contract hooks into EigenLayer’s slashing managers to actually penalize restaked ETH when violations occur. Thus, each AVS can have custom validation logic and fault conditions, while relying on EigenLayer to enforce economic punishments using the shared stake. This design lets AVS developers innovate on new trust models (even new consensus mechanisms or cryptographic services) without reinventing a bonding/slashing token for security.

  • AVS Consumers/Users – Finally, the end-users or other protocols that consume the AVS’s output. For instance, a dApp might use an oracle AVS for price data or a rollup might post data to a data availability AVS. Consumers pay fees to the AVS (often funding the rewards restakers/operators earn) and depend on its correctness, which is assured by the economic security the AVS has leased from Ethereum.

Leveraging Shared Security: The beauty of this model is that even a brand-new service can start life with Ethereum-grade security guarantees. Instead of recruiting and incentivizing a fresh set of validators, an AVS taps into an experienced, economically bonded validator set from day one. Smaller chains or modules that would be insecure alone become secure by piggybacking on Ethereum. This pooled security significantly raises the cost to attack any single AVS – an attacker would need to acquire and stake large amounts of ETH (or other whitelisted collateral) and then risk losing it via slashing. Because many services share the same pool of restaked ETH, they effectively form a shared security umbrella: the combined economic weight of the stake deters attacks on any one of them. From a developer’s perspective, this modularizes the consensus layer – you focus on your service’s functionality while EigenLayer handles securing it with an existing validator set. AVSs can thus be very diverse. Some are general-purpose “horizontal” services that many dApps could use (e.g. a generic decentralized sequencer or an off-chain compute network), while others are “vertical” or application-specific (tailored to a niche like a particular bridge or a DeFi oracle). Early examples of AVSs on EigenLayer span data availability (e.g. EigenDA), shared sequencing for rollups (e.g. Espresso, Radius), oracle networks (e.g. eOracle), cross-chain bridges (e.g. Polymer, Hyperlane), off-chain computation (e.g. Lagrange for ZK proofs), and more. All of these leverage the same Ethereum trust base. In summary, an AVS is essentially a pluggable module that outsources trust to Ethereum: it defines what validators must do and what constitutes a slashable fault, and EigenLayer enforces those rules on a pool of ETH that is globally used to secure many such modules.

Incentive Mechanisms for Restakers, Operators, and Developers

A robust incentive design is critical to align all parties in a restaking ecosystem. EigenLayer and similar platforms create a “win-win-win” by offering new revenue to stakers and operators while lowering costs for emerging protocols. Let’s break down incentives by role:

  • Incentives for Restakers: Restakers are primarily motivated by yield. By opting into EigenLayer, an ETH staker can earn extra rewards on top of their standard Ethereum staking yield. For example, a validator with 32 ETH staked in Ethereum’s beacon chain continues earning the ~4-5% base APR, but if they restake via EigenLayer, they can simultaneously earn fees or token rewards from multiple AVSs that they help secure. This “double dipping” dramatically increases potential returns for validators. In EigenLayer’s early rollout, restakers received incentive points that converted into EIGEN token airdrops (for bootstrap); later a continuous reward mechanism (Programmatic Incentives) was launched, distributing millions of EIGEN tokens to restakers as liquidity mining. Beyond token incentives, restakers benefit from diversification of income – instead of relying solely on Ethereum block rewards, they can earn in various AVS tokens or fees. Of course, these higher rewards come with higher risk (greater slashing exposure), so rational restakers will only opt into AVSs they believe are well-managed. This creates a market-driven check: AVSs must offer attractive enough rewards to compensate for risk, or restakers will avoid them. In practice, many restakers delegate to professional operators, so they may also pay a commission to the operator out of their rewards. Even so, restakers stand to gain significantly by monetizing the otherwise idle security capacity of their staked ETH. (Notably, EigenLayer reports that over 88% of all distributed EIGEN went straight into being staked/delegated again – indicating restakers are eagerly compounding their positions.)

  • Incentives for Operators: Operators in EigenLayer are the service providers who do the heavy lifting of running nodes for each AVS. Their incentive is the fee revenue or reward share paid by those AVSs. Typically, an AVS will pay out rewards (in ETH, stablecoins, or its own token) to all validators securing it; operators receive those rewards on behalf of the stake they host, and often take a cut (like a commission) for providing infrastructure. EigenLayer allows restakers to delegate to operators, so operators compete to attract as much restaked ETH as possible – more stake delegated means more tasks they can do and more fees earned. This dynamic encourages operators to be highly reliable and specialize in AVSs they can run efficiently (to avoid getting slashed and to maximize uptime). An operator with a good reputation may secure a larger delegation and thus greater total rewards. Importantly, operators face slashing penalties for misconduct just as restakers do (since the stake they carry can be slashed), aligning their behavior with honest execution. EigenLayer’s design effectively creates an open marketplace for validator services: AVS teams can “hire” operators by offering rewards, and operators will choose AVSs that are profitable relative to risk. For instance, one operator might focus on running an oracle AVS if it has high fees, while another might run a data layer AVS that requires lots of bandwidth but pays well. Over time, we expect a free-market equilibrium where operators choose the best mix of AVSs and set an appropriate fee split with their delegators. This contrasts with traditional single-chain staking where validators have fixed duties – here, they can multitask across services to stack earnings. The incentive for operators is thus to maximize their earnings per unit of staked collateral, without overloading to the point of slashing. It’s a delicate balance that should drive professionalization and maybe even insurance or hedging solutions (operators might insure against slashing to protect their delegators, etc.).

  • Incentives for AVS Developers: Protocol developers (the teams building new AVSs or chains) arguably have the most to gain from restaking’s “security outsourcing” model. Their primary incentive is cost and time savings: they do not need to launch a new token with high inflation or persuade thousands of independent validators to secure their network from scratch. Bootstrapping a PoS network normally requires giving early validators large token rewards (diluting the supply) and can still result in weak security if the token’s market cap is low. With shared security, a new AVS can come online secured by Ethereum’s $200B+ economic security, instantly making attacks economically unviable. This is a huge draw for infrastructure projects like bridges or oracles that need strong safety guarantees. Moreover, developers can focus on their application logic and rely on EigenLayer (or Karak, etc.) for the validator set management, greatly reducing complexity. Economically, while the AVS must pay for security, it can often do so in a more sustainable way. Instead of huge inflation, it might redirect protocol fees or offer a modest native token stipend. For example, a bridge AVS could charge users fees in ETH and use those to pay restakers, achieving security without printing unbacked tokens. A recent analysis notes that eliminating the need for “highly dilutive reward mechanisms” was a key motivation behind Karak’s universal restaking design. Essentially, shared security allows “bootstrapping on a budget.” Additionally, if the AVS does have a token, it can be used more for governance or utility rather than purely for security spend. Developers are also incentivized by network effects: by plugging into a restaking hub, their service can more easily interoperate with other AVSs (shared users and operators) and gain exposure to the large community of Ethereum stakers. The flip side is that AVS teams must design compelling reward schemes to attract restakers and operators in the open market. This often means initially offering generous yields or token incentives to kickstart participation – much like liquidity mining in DeFi. For instance, EigenLayer itself distributed the EIGEN token widely to early stakers/operators to encourage participation. We see similar patterns with new restaking platforms (e.g. Karak’s XP campaign for future $KAR tokens). In summary, AVS developers trade off giving some rewards to Ethereum stakers in return for avoiding the dead-start problem of securing a new network. The strategic gain is faster time-to-market and higher security from day one, which can be a decisive advantage especially for critical infrastructure like cross-chain bridges or financial services that require trust.

Regulatory Risks and Governance Concerns

Regulatory Uncertainty: The novel restaking model exists in a legal gray area, raising several regulatory questions. One concern is whether offering “security-as-a-service” could be seen by regulators as an unregistered security offering or a form of high-risk investment product. For example, the distribution of the EIGEN token via a staker airdrop and ongoing rewards has drawn scrutiny about compliance with securities laws. Projects must be careful that their tokens or reward schemes don’t trigger securities definitions (e.g. Howey test in the U.S.). Additionally, restaking protocols aggregate and reallocate stakes across networks, which might be viewed as a form of pooled investment or even a bank-like activity if not properly decentralized. EigenLayer’s team acknowledges the regulatory risk, noting that changing laws could impact the feasibility of restaking and that EigenLayer “might be classified as an illegal financial activity in some regions”. This means regulators could determine that handing off slashing control to third-party services (AVSs) violates financial or consumer-protection rules, especially if retail users are involved. Another angle is sanctions/AML: restaking moves stake into contracts that then validate other chains – if one of those chains is processing illicit transactions or is sanctioned, could Ethereum validators inadvertently fall foul of compliance? This remains untested. So far, no clear regulations target restaking specifically, but the evolving stance on crypto staking (e.g. the SEC’s actions against centralized staking services) suggests that restaking may attract scrutiny as it grows. Projects like EigenLayer have taken a cautious approach – for instance, the EIGEN token was initially non-transferrable upon launch to avoid speculative trading and potential regulatory issues. Nonetheless, until frameworks are defined, restaking platforms operate with the risk that new laws or enforcement could impose constraints (such as requiring participant accreditation, disclosures, or even prohibiting certain types of cross-chain staking).

Governance and Consensus Concerns: Restaking introduces complex governance challenges both at the protocol level and for the broader Ethereum ecosystem:

  • Overloading Ethereum’s Social Consensus: A prominent worry, voiced by Vitalik Buterin, is that extended uses of Ethereum’s validator set could inadvertently drag Ethereum itself into external disputes. Vitalik’s admonition: “Dual-use of validator staked ETH, while it has some risks, is fundamentally fine, but attempting to ‘recruit’ Ethereum’s social consensus for your application’s own purposes is not.”. In plain terms, it’s acceptable if Ethereum validators also validate, say, an oracle network and get slashed individually for misbehavior there (no effect on Ethereum’s consensus). What’s dangerous is if an external protocol expects the Ethereum community or core protocol to step in to resolve some issue (for example, to fork out validators who behaved badly on the external service). EigenLayer’s design consciously tries to avoid this scenario by keeping slashable faults objective and isolated. Slashing conditions are cryptographic (e.g. double-signing proof) and do not require Ethereum governance intervention – thus any punishment is self-contained to the EigenLayer contract and doesn’t involve Ethereum altering its state or rules. In cases of subjective faults (where human judgment is needed, say for an oracle pricing dispute), EigenLayer plans to use its own governance (e.g. an EIGEN token vote or a council) rather than burden Ethereum’s social layer. This separation is critical to maintain Ethereum’s neutrality. However, as restaking grows, there is a systemic risk that if a major incident occurred (such as a bug causing mass slashing of a huge portion of validators), the Ethereum community might be pressured to respond (for instance, by reversing slashes). That would entangle Ethereum in the fate of external AVSs – exactly what Vitalik warns against. The social consensus risk is thus mostly about extreme “black swan” cases, but it underscores the importance of keeping Ethereum’s core minimal and uninvolved in restaking governance.

  • Slashing Cascades and Ethereum Security: Relatedly, there is concern that slashing events in restaking could cascade and compromise Ethereum. If a very popular AVS (with many validators) suffered a catastrophic failure leading to mass slashing, thousands of ETH validators might lose stake or get forced out. In a worst-case scenario, if enough stake is slashed, Ethereum’s own validator set could shrink or centralize rapidly. For example, imagine a top EigenLayer operator running 10% of all validators is slashed on an AVS – those validators could go offline after losing funds, reducing Ethereum’s security. Chorus One (a staking service) analyzed EigenLayer and noted this cascade risk is exacerbated if the restaking market leads to only a few large operators dominating. The good news is that historically, slashing on Ethereum is rare and usually small-scale. EigenLayer also initially limited the amount of stake and disabled slashing while the system was new. By April 2025, EigenLayer enabled slashing on mainnet with careful monitoring. To further mitigate unintended slashes (e.g. due to bugs), EigenLayer introduced “slashing veto committees” – essentially a multi-sig of experts who can override a slashing if it appears to be a mistake or an attack on the protocol. This is a temporary centralizing measure, but it addresses the risk of a flawed AVS smart contract wreaking havoc. In time, such committees could be replaced by more decentralized governance or fail-safes.

  • Centralization of Restaking and Governance: A key governance concern is who controls the restaking protocol and its parameters. In EigenLayer’s early stages, upgrades and critical decisions were controlled by a multisig of the team and close community (e.g. a 9-of-13 multisig). This is practical for rapid development safety, but it’s a centralization risk – those key holders could collude or be compromised to maliciously change rules (for instance, to steal staked funds). Recognizing this, EigenLayer established a more formal EigenGov framework in late 2024, introducing a Protocol Council of experts and a community governance process for changes. The council now controls upgrades via a 3-of-5 multisig, with community oversight. Over time, the intent is to evolve to token-holder governance or a fully decentralized model. Still, in any restaking system, governance decisions (like which new collateral to support, what AVS to “bless” with official status, how slashing disputes are resolved) carry high stakes. There’s a potential conflict of interest: large staking providers (like Lido or exchanges) could influence governance to favor their operators or assets. Indeed, competition is emerging – e.g. Lido’s founders backing Symbiotic, a multi-asset restaking platform – and one can imagine governance wars if, say, a proposal arises to ban a certain AVS that is seen as risky. The restaking layer itself needs robust governance to manage such issues transparently.

  • Validator Centralization: On the operational side, there is concern that AVSs will preferentially choose big operators, causing centralization in who actually validates most of the restaked services. If, for efficiency, many AVS teams all select a handful of professional validators (e.g. major staking companies) to service them, those entities gain outsized power and share of rewards. They could then undercut others by offering better terms (thanks to economies of scale), potentially snowballing into an oligopoly. This mirrors concerns in vanilla Ethereum staking (e.g. Lido’s dominance). Restaking could amplify it since operators that run multiple AVSs have more revenue streams. This is as much an economic concern as a governance one – it might require community-imposed limits or incentives to encourage decentralization (for instance, EigenLayer could cap how much stake one operator can control, or AVSs could be required to distribute their assignments). Without checks, the “rich get richer” dynamic could lead to a few node operators effectively controlling large swathes of the Ethereum validator set across many services, which is unhealthy for decentralization. The community is actively discussing such issues, and some have proposed that restaking protocols include mechanisms to favor smaller operators or enforce diversity (perhaps via the delegation strategy or through social coordination by staker communities).

In summary, while restaking unlocks tremendous innovation, it also introduces new vectors of risk. Regulators are eyeing whether this represents unregulated yield products or poses systemic dangers. Ethereum’s leadership stresses the importance of not entangling base-layer governance in these new uses. The EigenLayer community and others have responded with careful design (objective slashing only, two-tier tokens for different fault types, vetting AVSs, etc.) and interim central control to prevent accidents. Ongoing governance challenges include decentralizing control without sacrificing safety, ensuring open participation rather than concentration, and establishing clear legal frameworks. As these restaking networks mature, expect improved governance structures and possibly industry standards or regulations to emerge that address these concerns.

EigenLayer vs. Karak vs. Babylon: A Comparative Analysis

The restaking/shared-security landscape now includes several frameworks with different designs. Here we compare EigenLayer, Karak Network, and Babylon – highlighting their technical architectures, economic models, and strategic focus:

Technical Architecture & Security Base: EigenLayer is an Ethereum-native protocol (smart contracts on Ethereum L1) that leverages staked ETH (and equivalent Liquid Staking Tokens) as the security collateral. It “piggybacks” on Ethereum’s beacon chain – validators opt in via Ethereum contracts, and slashing is enforced on their ETH stake. This means EigenLayer’s security is fundamentally tied to Ethereum’s PoS and the value of ETH. In contrast, Karak positions itself as a “universal restaking layer” not tied to a single base chain. Karak launched its own L1 blockchain (with EVM compatibility) optimized for shared security services. Karak’s model is chain-agnostic and asset-agnostic: it allows restaking of many types of assets across multiple chains, not just ETH. Supported collateral reportedly includes ETH and LSTs plus other ERC-20s (stablecoins like USDC/sDAI, LP tokens, even other L1 tokens). This means Karak’s security base is a diversified basket; validation in Karak could be backed by, say, some combination of staked ETH, staked SOL (if bridged in), stablecoins, etc., depending on what the AVS (or “VaaS” in Karak’s terminology) accepts. Babylon takes a different route: it harnesses the security of Bitcoin (BTC) – the largest crypto asset – to secure other chains. Babylon is built as a Cosmos-based chain (Babylon Chain) that connects to Bitcoin and PoS chains via the IBC protocol. BTC holders lock native BTC on the Bitcoin mainnet (in a clever time-locked vault) and thereby “stake” BTC to Babylon, which then uses that as collateral to secure consumer PoS chains. Thus, Babylon’s security base is the value of Bitcoin (over $500B market cap), tapped in a trustless way (no wrapped BTC or custodians – it uses Bitcoin scripts to enforce slashing). In summary, EigenLayer relies on Ethereum’s economic security, Karak is multi-asset and multi-chain (a generic layer for any collateral), and Babylon extends Bitcoin’s proof-of-work security into PoS ecosystems.

Restaking Mechanism: In EigenLayer, restaking is opt-in via Ethereum contracts; slashing is programmatic and enforced by Ethereum consensus (honoring the EigenLayer contracts). Karak, as an independent L1, maintains its own restaking logic on its chain. Karak introduced the concept of Validation-as-a-Service (VaaS) – analogous to Eigen’s AVS – but with a universal validator marketplace across chains. Karak’s validators (operators) run its chain and any number of Distributed Secure Services (DSS), which are Karak’s equivalent of AVSs. A DSS might be a new app-specific blockchain or service that rents security from Karak’s staked asset pool. Karak’s innovation is standardizing requirements so that any chain or app (Ethereum, Solana, an L2, etc.) could plug in and use its validator network and varied collateral. Slashing in Karak would be handled by its protocol rules – since it can stake e.g. USDC, it presumably slashes a validator’s USDC if they misbehave on a service (the exact multi-asset slashing mechanics are complex and not public, but the idea is similar: each collateral can be taken away if violations are proven). Babylon’s mechanism is unique due to Bitcoin’s limitations: Bitcoin doesn’t support smart contracts to auto-slash, so Babylon uses cryptographic tricks. BTC is locked in a special output that requires a key. If a BTC-staking participant cheats (e.g. signs two conflicting blocks on a client chain), the protocol leverages an extractable one-time signature (EOTS) scheme to reveal the participant’s private key, allowing their locked BTC to be swept to a burn address. In simpler terms, misbehavior causes the BTC staker to effectively slash themselves, as the act of cheating gives away control of their deposit (which is then destroyed). Babylon’s Cosmos-based chain coordinates this process and communicates with partner chains (via IBC) to provide services like checkpointing and finality using BTC’s timestamps. In Babylon, the validators of the Babylon chain (called finality providers) are separate – they run the Babylon consensus and assist in relaying information to Bitcoin – but don’t provide economic security; the economic security comes purely from locked BTC.

Economic Model & Rewards: EigenLayer’s economic model is centered on Ethereum’s staking economy. Restakers earn AVS-specific rewards – these could be paid in ETH fees, the AVS’s own token, or other tokens depending on each AVS’s design. EigenLayer itself introduced the $EIGEN token largely for governance and to reward early participants, but AVSs are not required to use or pay in EIGEN (it’s not a gas token for them). The platform targets a free-market equilibrium where each AVS sets a reward rate to attract sufficient security. Karak appears to be launching its native token $KAR (not yet live as of early 2025) as the primary asset in its ecosystem. Karak raised $48M and was backed by major investors, implying $KAR will have value and likely be used for governance and possibly fee payments on the Karak network. However, Karak’s main promise is “no inflation” for new networks leveraging it – instead of issuing their own tokens for security, they tap into existing assets via Karak. So a new chain using Karak might pay validators in, say, its transaction fees (which could be in a stablecoin or in the chain’s native token if it has one) but would not need to continuously mint new tokens for staking rewards. Karak set up a validator marketplace where developers can post bounties/rewards for validators to restake assets and secure their service. This marketplace approach aims to make rewards more competitive and consistent rather than extremely high inflation followed by crash – theoretically reducing costs for developers and giving validators steady multi-chain income. Babylon’s economics differ as well: BTC stakers who lock their Bitcoin earn yield in the tokens of the networks they are securing. For example, if you stake BTC to help secure a Cosmos zone (one of Babylon’s client chains), you receive that zone’s staking rewards (its native staking token) as if you were a delegator there. Those partner chains benefit by getting an extra layer of security (checkpoints on Bitcoin, etc.), and in return they allocate a portion of their inflation or fees to BTC stakers via Babylon. In effect, Babylon acts as a hub where BTC holders can delegate security to many chains and get paid in many tokens. The Babylon chain itself has a token called $BABY, used to stake in Babylon’s own consensus (Babylon still needs its own PoS validators to run the chain’s infrastructure). $BABY is also likely used in governance and maybe to align incentives (for instance, finality providers stake BABY). But importantly, $BABY does not replace BTC as the source of security – it’s more for running the chain – whereas BTC is the collateral that backs the shared security service. As of May 2025, Babylon had successfully bootstrapped with over 50,000 BTC staked (~$5.5 billion) by BTC holders, making it one of the most secure Cosmos chains by capital. Those BTC stakers then earn staking rewards from multiple connected chains (e.g. Cosmos Hub’s ATOM, Osmosis’s OSMO, etc.), achieving diversified yield while holding BTC.

Strategic Focus and Use Cases: EigenLayer’s strategy has been Ethereum-centric, aiming to accelerate innovation within the Ethereum ecosystem. Its early target use cases (data availability, middleware like oracles, rollup sequencing) all enhance Ethereum or its rollups. It essentially supercharges Ethereum as a meta-layer of services, and now with its planned “multi-chain” support (added in 2025), EigenLayer will allow AVSs to run on other EVM chains or L2s while still using Ethereum’s validator set. This cross-chain verification means EigenLayer is evolving into a cross-chain security provider, but anchored in Ethereum (validators and staking still live on Ethereum for slashing). Karak positions itself as a globally extensible base layer for all kinds of applications – not just crypto infrastructure, but also real-world assets, financial markets, even government services, according to its marketing. The name “Global Base Layer for Programmable GDP” hints at an ambition to work with institutions and nation-states. Karak emphasizes integration of traditional finance and AI, suggesting it will pursue partnerships beyond the crypto-native realm. Technically, by supporting assets like stablecoins and potentially government currencies, Karak could enable, for example, a government to launch a blockchain secured by its own fiat token staked via Karak’s validators. Its support for enterprise and multiple jurisdictions is a differentiator. In essence, Karak is trying to be “restaking for everyone, on any chain, with any asset” – a broader net than EigenLayer’s Ethereum-first approach. Babylon’s focus is on bridging the Bitcoin and Cosmos (and broader PoS) ecosystems. It specifically enhances inter-chain security by providing Bitcoin’s immutability and economic weight to otherwise smaller proof-of-stake chains. One of Babylon’s killer apps is adding Bitcoin finality checkpoints to PoS chains, making it extremely hard for those chains to be attacked or reorganized without also attacking Bitcoin. Babylon thus markets itself as bringing “Bitcoin’s security to all of crypto”. Its near-term focus has been Cosmos SDK chains (which it calls Bitcoin Supercharged Networks in Phase 3), but the design is meant to be interoperable with Ethereum and rollups as well. Strategically, Babylon taps into the vast BTC holder base, giving them a yield option (BTC is otherwise a non-yielding asset) and at the same time offering chains access to the “gold standard” of crypto security (BTC + PoW). This is quite distinct from EigenLayer and Karak, which are more about leveraging PoS assets.

Table: EigenLayer vs Karak vs Babylon

FeatureEigenLayer (Ethereum)Karak Network (Universal L1)Babylon (Bitcoin–Cosmos)
Base Security AssetETH (Ethereum stake) and whitelisted LSTs.Multi-asset: ETH, LSTs, stablecoins, ERC-20s, etc.. Also cross-chain assets (Arbitrum, Mantle, etc.).BTC (native Bitcoin) locked on Bitcoin mainnet. Uses Bitcoin’s high market cap as security.
Platform ArchitectureSmart contracts on Ethereum L1. Uses Ethereum validators/clients; slashing enforced by Ethereum consensus. Now expanding to support AVSs on other chains via Ethereum proofs.Independent Layer-1 chain (“Karak L1”) with EVM. Provides a restaking framework (KNS) to launch new blockchains or services with instant validator sets. Not a rollup or L2 – a separate network bridging multiple ecosystems.Cosmos-based chain (Babylon Chain) connecting to Bitcoin via cryptographic protocols. Uses IBC to link with PoS chains. Babylon validators run a Tendermint consensus, and Bitcoin network is leveraged for timestamps & slashing logic.
Security ModelOpt-in restaking: Ethereum stakers delegate stake to EigenLayer and opt into AVS-specific slashing conditions. Slashing conditions are objective (cryptographic proofs) to avoid Ethereum social consensus issues.Universal validation: Karak validators can stake various assets and are assigned to secure Distributed Secure Services (DSS) (similar to AVSs) across many chains. Slashing and rewards handled by Karak’s chain logic; standardizes security as a service for any chain.“Remote staking” BTC: Bitcoin holders lock BTC in self-custody vaults (timelocked UTXOs) and if they misbehave on a client chain, their private key can be exposed to slash (burn) their BTC. Uses Bitcoin’s own mechanics (no token wrapping). Babylon chain coordinates this and provides checkpointing (BTC finality) to client chains.
Token & RewardsEIGEN token: Used for governance and to reward early participants (via airdrop, incentives). Restakers mainly earn in AVS fees or tokens (could be ETH, stablecoins, or AVS-native tokens). EigenLayer itself doesn’t mandate a cut for EIGEN token holders in AVS revenue (though EIGEN may have future utility in subjective validation tasks).KAR token: Not yet launched (expected in 2025). Will be main utility/governance token in Karak’s ecosystem. Karak touts no native inflation for new chains – validators earn consistent rewards by securing many services. New protocols can incentivize validators via the Karak marketplace rather than high inflation tokens. Likely KAR will be used for Karak chain security and governance decisions.BABY token: Native to Babylon Chain (for staking its validators, governance). BTC stakers do not receive BABY for their service, instead they earn yield in the tokens of the connected PoS chains they secure. (E.g. stake BTC to secure Chain X, earn Chain X’s staking rewards). This keeps BTC stakers’ exposure mostly to existing tokens. BABY’s role is to secure the Babylon hub and possibly as gas or governance in the Babylon ecosystem.
Notable Use CasesEthereum-aligned infrastructure: e.g. EigenDA (data availability for rollups), oracle networks (e.g. Tellor/eOracle), cross-chain bridges (LayerZero integrating), shared sequencers for rollups (Espresso, Radius), off-chain compute (Risc Zero, etc.). Also exploring decentralized MEV relay services and liquid restaking derivatives. Essentially, extends Ethereum’s capabilities (scaling, interoperability, DeFi middleware) by providing a decentralized trust layer.Broad focus including traditional finance integration: tokenized real-world assets, 24/7 trading markets, even government and AI applications on bespoke chains. For example, KUDA (data availability marketplace) and others are being built in Karak’s ecosystem. Could host enterprise consortia chains that use USD stablecoins as staking collateral, etc. Karak is targeting multi-chain developers who want security without being limited to Ethereum validators or ETH only. Also emphasizes interoperability and capital efficiency – e.g. using lower-opportunity-cost assets (like smaller L1 tokens) for restaking so that yields can be higher without competing with ETH’s yield.Security for Cosmos chains and beyond: e.g. using BTC to secure Cosmos Hub, Osmosis, and other zones (enhancing their security without those zones increasing inflation). Provides Bitcoin timestamp finality – any chain that opts in can have important transactions hashed onto Bitcoin for censorship-resistance and finality. Especially useful for new PoS chains that want to prevent long-range attacks or add a Bitcoin “root of trust.” Babylon effectively creates a bridge between Bitcoin and PoS networks: Bitcoin holders gain yield from PoS, and PoS chains gain BTC’s security and community. It’s complementary to restaking with ETH; for instance, a chain might use EigenLayer for ETH economic security and Babylon for BTC robustness.

Strategic Differences: EigenLayer benefits from Ethereum’s massive decentralized validator set and credibility, but it is limited to ETH-based security. It excels at serving Ethereum-oriented projects (many AVSs are Ethereum rollup or middleware projects). Karak’s strategy is to capture a larger market by being flexible in asset support and chain support – it’s not married to Ethereum and even pitches that developers can avoid being “confined exclusively to Ethereum for security”. This could attract projects in ecosystems like Arbitrum, Polygon, or even non-EVM chains that want a neutral security provider. Karak’s multi-asset approach also means it can tap into assets that have lower yields elsewhere; as co-founder Raouf Ben-Har noted, “Many assets have lower opportunity costs versus ETH… meaning [our services] have an easier path to sustainable yields.”. For example, staked ARB (Arbitrum’s token) currently has few uses; Karak could let ARB holders restake into securing new dApps, creating a win-win (yield for ARB holders, security for the dApp). This strategy, however, comes with technical complexity (managing different asset risks) and trust assumptions (bridging assets into Karak’s platform safely). Babylon’s strategy is distinct by focusing on Bitcoin – it is leveraging the largest crypto asset by market cap, which also has a very different community and use profile (long-term holders). Babylon basically unlocked a new staking source that was previously untapped: $1.2 trillion of BTC that could not natively stake. By doing so, it addresses a huge security pool and targets chains that value Bitcoin’s assurances. It also appeals to Bitcoin holders by giving them a way to earn yield without giving up custody of BTC. One might say Babylon is almost the inverse of EigenLayer: instead of extending Ethereum’s security outward, it is importing Bitcoin’s security into PoS networks. Strategically, it could unify the historically separate Bitcoin and DeFi worlds.

Each of these frameworks has trade-offs. EigenLayer currently enjoys a first-mover advantage in Ethereum restaking and a large TVL (~$20B restaked by late 2024), plus deeply integrated Ethereum community support. Karak is newer (mainnet launched April 2024) and aims to grow by covering niches EigenLayer doesn’t (non-ETH collateral, non-Ethereum chains). Babylon operates in the Cosmos arena and taps Bitcoin – it doesn’t compete with EigenLayer for ETH stakers, but rather offers an orthogonal service (some projects might use both). We are seeing a convergence where multiple restaking layers could even interoperate: e.g. an Ethereum L2 could use EigenLayer for ETH-based security and also accept BTC security via Babylon – demonstrating that these models are not mutually exclusive but part of a broader “shared security market”.

Recent Developments and Ecosystem Updates (2024–2025)

EigenLayer’s Progress: Since its inception in 2021, EigenLayer has rapidly evolved from concept to a live network. It launched on Ethereum mainnet in stages – Stage 1 in mid-2023 enabled basic restaking, and by April 2024 the full EigenLayer protocol (with support for operators and initial AVSs) was deployed. The ecosystem growth has been substantial: as of early 2025 EigenLayer reports 29 AVSs live on mainnet (and 130+ in development) ranging from data layers to oracles. Over 200 operators and tens of thousands of restakers are participating, contributing to a restaked TVL that reached ~$20 billion by late 2024. A major milestone was the introduction of slashing and reward enforcement on mainnet in April 2025, marking the final step of EigenLayer’s security model coming into effect. This means AVSs can now truly penalize misbehavior and pay out rewards trustlessly, moving past the “trial phase” where these were turned off. Alongside this, EigenLayer implemented a series of upgrades: for example, the MOOCOW upgrade (July 2025) improved validator efficiency by allowing easier restake withdrawals and consolidation (leveraging Ethereum’s Pectra fork). Perhaps the most significant new feature is Multi-Chain Verification, launched in July 2025, which enables AVSs to operate across multiple chains (including L2s) while still using Ethereum-based security. This was demonstrated on Base Sepolia testnet and will roll out to mainnet, effectively turning EigenLayer into a cross-chain security provider (not just for Ethereum L1 apps). It addresses a prior limitation that EigenLayer AVSs had to post all data on Ethereum; now an AVS can run on, say, an Optimistic Rollup or another L1, and EigenLayer will verify proofs (using Merkle roots) back on Ethereum to slash or reward as needed. This greatly expands EigenLayer’s reach and performance (AVSs can run where it’s cheaper while keeping Ethereum security). In terms of community and governance, EigenLayer rolled out EigenGov in late 2024 – a council and ELIP (EigenLayer Improvement Proposal) framework to decentralize decision-making. The Protocol Council (5 members) now oversees critical changes with community input. Additionally, EigenLayer has been conscious of concerns raised by Ethereum’s core community. In response to Vitalik’s warnings, the team has published materials explaining how they avoid overloading Ethereum’s consensus, for instance by using the EIGEN token for any “subjective” services and leaving ETH restaking for purely objective slashing cases. This two-tier approach (ETH for clear-cut faults, EIGEN for more subjective or governance-led decisions) is still being refined, but shows EigenLayer’s commitment to aligning with Ethereum’s ethos.

On the ecosystem side, EigenLayer’s emergence has inspired a wave of innovation and discussion. By mid-2024, analysts noted restaking had become “a leading narrative within the Ethereum community”. Many DeFi and infrastructure projects started plotting how to leverage EigenLayer for security or additional yield. At the same time, community members are debating risk management: for example, Chorus One’s detailed risk report (April 2024) brought attention to operator centralization and cascade slashing risks, prompting further research and possibly features like stake distribution monitoring. The EIGEN token distribution was also a hot topic – in Q4 2024 EigenLayer conducted a “stake drop” where active Ethereum users and early EigenLayer participants received EIGEN, but it was non-transferrable initially. Some community members were unhappy with aspects of the drop (e.g. large portions allocated to VCs, and some DeFi protocols that integrated EigenLayer not being directly rewarded). This feedback has led the team to emphasize more community-centric incentives moving forward, and indeed the Programmatic Incentives introduced aim to continuously reward those actually restaking and operating. By 2025, EigenLayer is one of the fastest-growing developer ecosystems – even recognized in an Electric Capital report – and has secured major partnerships (e.g. with LayerZero, ConsenSys, Risc0) to drive adoption of AVSs. Overall, EigenLayer’s trajectory in 2024–2025 shows a maturing platform addressing early concerns and expanding functionality, solidifying its position as the pioneer of Ethereum restaking.

Karak and Other Competitors: Karak Network stepped into the spotlight with its mainnet launch in April 2024 and quickly positioned itself as a notable EigenLayer rival on Ethereum and beyond. Backed by large investors and even certain Ethereum stakeholders (Coinbase Ventures, among others), Karak’s promise of “restaking for everyone, on any chain, with any asset” garnered attention. In late 2024, Karak upgraded to a V2 mainnet with enhanced features for universal security, completing migrations across Arbitrum and Ethereum by November 2024. This indicates Karak expanded support for more assets and possibly improved its smart contracts or consensus. By early 2025, Karak had grown its user base via an XP incentive program (encouraging testnet participation, staking, etc., with the hope of a future $KAR airdrop). Community discussions around Karak often compare it to EigenLayer: Bankless noted in May 2024 that while Karak’s total value staked was still “nowhere near the size of EigenLayer,” it had seen rapid growth (4x in a month) possibly due to users seeking higher rewards or diversifying away from EigenLayer. Karak’s appeal lies in supporting assets like Pendle yield tokens, Arbitrum’s ARB, Mantle’s token, etc., which broadens the restaking market. As of 2025, Karak is likely focusing on onboarding more “Validation-as-a-Service” clients and possibly preparing the launch of its KAR token (its documentation suggests following official channels for token updates). The competition between EigenLayer and Karak remains friendly but significant – both aim to attract stakers and projects. If EigenLayer holds the ETH maximalist segment, Karak is appealing to multi-chain users and those with non-ETH assets looking for yield. We can expect Karak to announce partnerships in the coming year, perhaps with Layer2 networks or even institutional players given its “institutional-grade” branding. The restaking market is thus not a monopoly; rather, multiple platforms are finding niches, which could lead to a fragmented but rich ecosystem of shared security providers.

Babylon’s Launch and the BTC Staking Frontier: Babylon completed a major milestone in 2025 by activating its core functionality – Bitcoin staking for shared security. After a Phase-1 testnet and gradual rollout, Babylon’s Phase-2 mainnet went live in April 2025, and by May 2025 it reported over 50k BTC staked in the protocol. This is a remarkable achievement, effectively plugging in ~$5B of Bitcoin into the interchain security market. Babylon’s early adopter chains (the first “Bitcoin Supercharged Networks”) include several Cosmos-based chains that integrated Babylon’s light client and started relying on BTC checkpoint finality. The Babylon Genesis chain itself launched on April 10, 2025, secured by the new $BABY token staking, and one day later (April 11) the trustless BTC staking was piloted with an initial 1000 BTC cap. By April 24, 2025, BTC staking opened permissionlessly to all, and the cap was lifted. The smooth operation for the first weeks led the team to declare Bitcoin staking “successfully bootstrapped,” calling Babylon Genesis now “among the most secure L1s in the world in terms of staking market cap.”. With Phase-2 complete, Phase-3 aims to onboard many external networks as clients, turning them into BSNs (Bitcoin Supercharged Networks). This will involve interoperability modules so that Ethereum, its rollups, and any Cosmos chain can all use Babylon to draw security from BTC. The Babylon community – comprising Bitcoin holders, Cosmos devs, and others – has been actively discussing governance of the $BABY token (ensuring the Babylon chain remains neutral and reliable for all connected chains) and the economics (for instance, balancing BTC staking rewards among many consumer chains so that it’s attractive to BTC holders without over-subsidizing). One interesting development is Babylon’s support for things like Nexus Mutual cover (as per a May 2025 post) to offer insurance on BTC staking slashing, which could further entice participants. This shows the ecosystem maturing around risk management for this new paradigm.

Community and Cross-Project Discussions: As of 2025, a broader conversation is taking place about the future of shared security in crypto. Ethereum’s community largely welcomes EigenLayer but remains cautious; Vitalik’s blog post (May 2023) set the tone for careful delineation of what is acceptable. EigenLayer regularly engages the community via its forum, addressing questions like “Is EigenLayer overloading Ethereum’s consensus?” (short answer: they argue it is not, due to design safeguards). In the Cosmos community, Babylon sparked excitement as it potentially solves long-standing security issues (e.g. small zones suffering 51% attacks) without requiring them to join a shared-security hub like Polkadot or Cosmos Hub’s ICS. There is also interesting convergence: some Cosmos folks ask if Ethereum staking could ever power Cosmos chains (which is more EigenLayer’s domain), while Ethereum folks wonder if Bitcoin staking could secure Ethereum rollups (Babylon’s concept). We are seeing early signs of cross-pollination: for instance, ideas of using EigenLayer to restake ETH onto non-Ethereum chains (Symbiotic and Karak are steps in that direction) and using Babylon’s BTC staking as an option for Ethereum L2s. Even Solana has a restaking project (Solayer) that launched a soft test and hit caps quickly, showing the interest spans multiple ecosystems.

Governance developments across these projects include increasing community representation. EigenLayer’s council includes external community members now, and it has funded grants (via the Eigen Foundation) to Ethereum core devs, signaling goodwill back to Ethereum’s core. Karak’s governance is likely to revolve around the KAR token – currently, they run an off-chain XP system, but one can expect a more formal DAO once KAR is liquid. Babylon’s governance will be crucial as it coordinates between Bitcoin (which has no formal governance) and Cosmos chains (which have on-chain governance). It set up a Babylon Foundation and community forum to discuss parameters like unbonding periods for BTC, which require careful alignment with Bitcoin’s constraints.

In summary, by mid-2025 the restaking and shared security market has gone from theory to practice. EigenLayer is fully operational with real services and slashing, proving out the model on Ethereum. Karak has introduced a compelling multi-chain variant, broadening the design space and targeting new assets. Babylon has demonstrated that even Bitcoin can join the shared security party via clever cryptography, addressing a completely different segment of the market. The ecosystem is vibrant: new competitors (e.g. Symbiotic on Ethereum, Solayer on Solana, BounceBit using custodial BTC) are emerging, each experimenting with different trade-offs (Symbiotic aligning with Lido to use stETH and any ERC-20, BounceBit taking a regulated approach with wrapped BTC, etc.). This competitive landscape is driving rapid innovation – and importantly, discussion about standards and safety. Community forums and research groups are actively debating questions like: Should there be limits on restaked stake per operator? How to best implement cross-chain slashing proofs? Could restaking unintentionally increase systemic correlation between chains? All of these are being studied. The governance models are also evolving – EigenLayer’s move to a semi-decentralized council is one example of balancing agility and security in governance.

Looking ahead, the restaking paradigm is poised to become a foundation of Web3 infrastructure, much like how cloud services became essential in Web2. By commoditizing security, it enables smaller projects to launch with confidence and larger projects to optimize their capital use. The developments through 2025 show a promising yet cautious trajectory: the technology works and is scaling, but all players are mindful of risks. With Ethereum’s core devs, Cosmos builders, and even Bitcoiners now involved in shared security initiatives, it’s clear this market will only grow. We can expect closer collaboration across ecosystems (perhaps joint security pools or standardized slashing proofs) and, inevitably, regulatory clarity as regulators catch up to these multi-chain, multi-asset constructs. In the meantime, researchers and developers have a trove of new data from EigenLayer, Karak, Babylon, and others to analyze and improve upon, ensuring that the “restaking revolution” continues in a safe and sustainable manner.

Sources:

  1. EigenLayer documentation and whitepaper – definition of restaking and AVS
  2. Coinbase Cloud blog (May 2024) – EigenLayer overview, roles of restakers/operators/AVSs
  3. Blockworks News (April 2024) – Karak founders on “universal restaking” vs EigenLayer
  4. Ditto research (2023) – Comparison of EigenLayer, Symbiotic, Karak asset support
  5. Messari Research (Apr 2024) – “Babylon: Bitcoin Shared Security”, BTC staking mechanism
  6. HashKey Research (Jul 2024) – Babylon vs EigenLayer restaking yields
  7. EigenLayer Forum (Dec 2024) – Discussion of Vitalik’s “Don’t overload Ethereum’s consensus” and EigenLayer’s approach
  8. Blockworks News (Apr 2024) – Chorus One report on EigenLayer risks (slashing cascade, centralization)
  9. Kairos Research (Oct 2023) – EigenLayer AVS overview and regulatory risk note
  10. EigenCloud Blog (Jan 2025) – “2024 Year in Review” (EigenLayer stats, governance updates)
  11. Blockworks News (Apr 2024) – Karak launch coverage and asset support
  12. Babylon Labs Blog (May 2025) – “Phase-2 launch round-up” (Bitcoin staking live, 50k BTC staked)
  13. Bankless (May 2024) – “The Restaking Competition” (EigenLayer vs Karak vs others)
  14. Vitalik Buterin, “Don’t Overload Ethereum’s Consensus”, May 2023 – Guidance on validator reuse vs social consensus
  15. Coinbase Developer Guide (Apr 2024) – Technical details on EigenLayer operation (EigenPods, delegation, AVS structure).