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liquid-staking-and-the-restaking-revolution
Blog

Why Delegated Proof-of-Stake is Inherently Weakened by Liquid Derivatives

Liquid staking tokens (LSTs) abstract the delegator-validator relationship into a financial instrument, eroding the reputational and social bonds that are critical for slashing enforcement in DPoS systems like Solana and Cosmos.

introduction
THE SECURITY DILUTION

The Unseen Cost of Liquidity

Liquid staking derivatives decouple economic stake from validator control, creating a systemic weakness in Delegated Proof-of-Stake security.

Liquid staking derivatives like Lido's stETH and Rocket Pool's rETH create a fundamental misalignment. They separate the economic right to rewards from the operational responsibility of running a validator. This introduces a principal-agent problem where the ultimate capital provider has zero influence over the node operator's behavior.

The security guarantee weakens because the staked capital becomes fungible and tradeable. A malicious actor can acquire a large, liquid position in stETH without ever touching the underlying ETH or running infrastructure. This creates a cheaper attack vector than traditional PoS, where attackers must lock illiquid capital.

Validator centralization is the inevitable result. Protocols like Lido and Coinbase dominate because liquidity begets more liquidity, creating a winner-take-most market. A handful of node operators then control the signing keys for a majority of the derivative's backing stake, creating a single point of failure.

Evidence: On Ethereum, Lido commands over 30% of all staked ETH. If its top 5 node operators colluded, they could finalize a malicious chain. The social layer becomes the last line of defense, undermining the cryptographic guarantees of pure Proof-of-Stake.

deep-dive
THE LIQUIDITY TRAP

From Social Slashing to Financial Abstraction

Liquid staking derivatives decouple economic stake from validator control, eroding the social contract underpinning Delegated Proof-of-Stake security.

Liquid staking derivatives (LSDs) dissolve the direct link between a delegator's financial stake and their validator choice. Platforms like Lido and Rocket Pool issue liquid tokens (stETH, rETH) that represent a claim on staked assets, enabling yield farming and collateralization elsewhere. This creates a principal-agent problem where the token holder's economic interest is no longer aligned with the validator's performance.

Social slashing mechanisms become unenforceable when stake is abstracted into a fungible token. A delegator holding stETH faces no direct penalty if the underlying Lido node operator is slashed; the penalty is socialized across all stETH holders. This breaks the foundational individual accountability model of PoS, transforming slashing from a personal financial risk into a diluted, collective insurance pool.

The security model shifts from skin-in-the-game to financialization. Validator selection becomes a yield optimization game for LSD protocols, not a governance decision by aligned stakeholders. The result is centralized node operator sets (e.g., Lido's curated set) wielding outsized influence with capital that has no direct loyalty to the chain, only to the derivative's liquidity and APY on Aave or Curve.

Evidence: On Ethereum, over 40% of staked ETH is via liquid staking tokens. Lido's node operator set of ~30 entities controls ~32% of all staked ETH, creating a systemic centralization vector that social slashing cannot mitigate because the underlying capital is financially abstracted and indifferent.

THE LIQUIDITY-SECURITY TRADEOFF

DPoS vs. LSTs: A Security Mechanism Breakdown

How Liquid Staking Derivatives fundamentally alter the security and governance assumptions of Delegated Proof-of-Stake networks.

Security & Governance MetricPure DPoS (e.g., EOS, TRON)LST-Infected DPoS (e.g., Cosmos, Polkadot)Pure Liquid Staking (e.g., Lido on Ethereum)

Voting Power Concentration Risk

Top 21 validators control >50% stake

Top 5 LST providers control >60% of staked assets

Top 3 LST providers control >90% of staked ETH

Validator Slashing Surface

Direct slashing of 32+ individual operators

Slashing cascades through LST delegators; socialized loss

Slashing risk borne by LST provider's node operators

Governance Attack Cost

Acquire stake from 21+ distinct entities

Acquire stake or influence over 2-3 major LST governance tokens

Acquire governance tokens of 1-2 dominant LST protocols

Finality Time Under Attack

2-3 second block time allows rapid reorganization

LST unbonding periods (7-28 days) delay defensive redelegation

Ethereum's 12-15 minute epoch provides a coordination window

Capital Efficiency Penalty

Staked capital is illiquid (0% utility)

Staked capital gains liquidity but incurs 5-15% LST fee yield cut

Staked capital is fully liquid with a 10% protocol fee

Cross-Chain Security Coupling

None. Chain security is isolated.

High. LST depeg on one chain can cascade via IBC or XCM.

Extreme. LST dominance on L1 threatens all L2s and restaking ecosystems.

Protocol-Controlled Value (PCV)

Typically 0%. Treasury holds native token.

Moderate. LST protocol accrues fees in native & stablecoins.

Massive. Top LST protocols hold billions in multi-asset treasuries.

counter-argument
THE INCENTIVE MISMATCH

The Rebuttal: Isn't This Just Efficient Capital?

Liquid staking derivatives decouple economic interest from validator responsibility, creating a systemic security weakness.

Capital efficiency is security theater. Protocols like Lido and Rocket Pool optimize for yield, not network health. The staker's goal is to maximize returns, while the validator's duty is to secure the chain. This creates a principal-agent problem where the entity with the stake (the user) is not the entity performing the work (the node operator).

Liquid derivatives fragment voting power. A user's staked ETH in Lido is represented by stETH, which they can then use as collateral on Aave or as liquidity on Curve. This creates a derivative rehypothecation chain where the same economic value secures multiple protocols, diluting its singular commitment to the base-layer consensus.

The slashing risk is illusory. In a liquid staking model, the staker bears the slashing penalty, but the validator operator faces minimal direct financial loss. This misalignment means operators have less skin in the game for critical duties like maintaining uptime or avoiding malicious actions, as seen in the Solo Staking vs. Pooled Staking risk profile divergence.

Evidence: On Ethereum, Lido controls ~32% of staked ETH. If a major Lido node operator were slashed, the penalty would be socialized across all stETH holders, creating a diffuse, non-deterrent consequence versus the concentrated penalty a solo staker faces. This is a weaker security model.

case-study
THE LIQUID STAKING DILEMMA

Ecosystem Spotlights: Solana, Cosmos, and Beyond

Liquid staking derivatives (LSDs) solve capital efficiency but fundamentally erode the security and governance assumptions of Delegated Proof-of-Stake (DPoS) networks.

01

The Centralizing Gravity of Liquid Staking

LSD protocols like Lido, Marinade, and Stride consolidate stake into a few node operators. This creates systemic risk where a handful of entities control the chain's consensus.\n- Solana's Lido controls ~$2B+ in SOL, concentrated in ~30 operators.\n- Cosmos Hub's Stride funnels ATOM to its own validator set, bypassing community choice.

>30%
Stake Concentration
~30
Key Operators
02

Voter Apathy & The Governance Attack Surface

LSD holders delegate voting power to the protocol, not the underlying validator. This divorces economic stake from governance responsibility, creating passive, centralized voting blocs.\n- Lido's on-chain votes are often decided by <10 multisig members.\n- This enables proposal cartels and reduces the cost of a governance attack.

<10
Decisive Voters
High
Attack Viability
03

Solana's Nakamoto Coefficient Collapse

The Nakamoto Coefficient measures the minimum entities to compromise consensus. Liquid staking drastically reduces this number.\n- Native staking on Solana has a coefficient of ~31.\n- Through Lido's Jito-SOL, the effective coefficient for a large portion of stake falls to the protocol's ~30 node operators.

31→~30
Coefficient Drop
Single Point
Protocol Risk
04

Cosmos: Interchain Security vs. Liquid Staking

Cosmos's Interchain Security (ICS) relies on the ATOM validator set. Liquid staking on the Hub via Stride or pSTAKE siphons stake away, weakening the security budget for consumer chains.\n- Creates a zero-sum game between yield and ecosystem security.\n- Undermines the economic model of shared security providers like EigenLayer.

Zero-Sum
Security Game
Weakened
ICS Budget
05

The Slashing Risk Mismatch

LSDs socialize slashing risk among all stakers while the node operator bears the direct penalty. This misalignment reduces the operator's skin-in-the-game.\n- Protocols like Lido use insurance funds, diluting the punitive force of slashing.\n- Encourages riskier validator behavior for higher rewards.

Socialized
Risk
Diluted
Punishment
06

The Path Forward: Enshrined Solutions

The endgame is enshrined liquid staking at the protocol layer, as proposed by Ethereum's PBS and Celestia's modular design. This bakes liquidity and delegation into consensus rules, removing intermediary trust.\n- Removes the centralized LSD protocol as a point of failure.\n- Aligns economic stake, governance, and security directly on-chain.

Protocol-Level
Solution
Trust-Minimized
Delegation
risk-analysis
THE LIQUID STAKING DILEMMA

Systemic Risks and Attack Vectors

Liquid staking derivatives (LSDs) abstract away validator selection, creating a systemic fault line in Delegated Proof-of-Stake security.

01

The Centralization Black Box

LSD protocols like Lido and Rocket Pool concentrate voting power in a few node operators. This creates a hidden layer of centralization where governance is delegated, not distributed.\n- Lido's top 5 node operators control >60% of its Ethereum stake.\n- Single points of failure emerge in operator infrastructure and governance.

>60%
Stake Controlled
~30%
Ethereum LSD Share
02

The Rehypothecation Cascade

Staked assets are re-staked across EigenLayer, Babylon, and DeFi, creating layered systemic risk. A slashable event on one layer can trigger liquidations across the entire stack.\n- Uncorrelated failures become correlated through shared collateral.\n- Liquidity crunch risk amplifies during market stress, as seen in Terra/Luna collapse.

$15B+
TVL at Risk
N-to-1
Leverage Multiplier
03

The Governance Attack Surface

Liquid stakers are economically motivated, not ideologically aligned. This misalignment makes protocols vulnerable to bribe markets and short-term voting cartels.\n- Protocols like Curve show how vote-buying distorts governance.\n- LSD holders may vote against long-term network health for immediate yield.

Passive >90%
Voter Apathy
Low-Cost
Attack Cost
04

The Liquidity/ Security Trade-Off

LSDs solve staking illiquidity but weaken the slashing penalty mechanism—the core deterrent in PoS. Liquid tokens can be sold before slashing is enforced.\n- Economic security is diluted; the cost of attack decreases.\n- Rapid unstaking via secondary markets prevents effective punishment.

-70%
Penalty Efficacy
Instant
Exit Liquidity
05

The Oracle Manipulation Vector

LSD prices (e.g., stETH) are oracle-dependent. A manipulated price feed can trigger mass, unjustified liquidations in DeFi protocols like Aave and MakerDAO, creating a death spiral.\n- Flash loan attacks can temporarily distort LSD/asset ratios.\n- Protocol insolvency risk cascades through the credit system.

Minutes
Attack Window
Billions
TVL Exposed
06

The Regulatory Kill Switch

Centralized LSD providers and large node operators are KYC/AML attack surfaces. A regulatory action against a single entity (e.g., Coinbase's cbETH) could force a mass, disorderly unstaking event.\n- Sovereign risk becomes a network risk.\n- Censorship compliance can be enforced at the infrastructure layer.

Single Order
Failure Trigger
Days
Unstaking Delay
future-outlook
THE LIQUIDITY DILEMMA

The Path Forward: Social Layers or New Primitives?

Liquid staking derivatives fundamentally undermine the security and governance assumptions of Delegated Proof-of-Stake networks.

Liquid staking derivatives decouple economic interest from validator control. A user's staked ETH in Lido or Rocket Pool is represented by a liquid token (stETH, rETH). This token can be traded or used as collateral elsewhere, but the underlying stake remains with the derivative provider's validator set.

This creates a systemic concentration risk. The security model of Delegated Proof-of-Stake assumes stake is locked and slashed for misbehavior. Liquid derivatives allow the economic stake to flee instantly during a crisis while the illiquid validator stake remains, breaking the slashing deterrent.

Governance becomes a hollow ritual. Token holders with liquid staking tokens (LSTs) often delegate voting rights to the provider. This centralizes political power with entities like Lido DAO, creating a meta-governance layer that votes on behalf of disinterested capital.

Evidence: On Ethereum, Lido controls ~32% of staked ETH. If this exceeds 33%, it poses a finality risk. The social layer must then intervene, proving the technical consensus is weakened.

takeaways
THE LIQUID STAKING DILEMMA

TL;DR for Protocol Architects

Liquid staking derivatives (LSDs) create systemic risk by decoupling economic stake from validator control, undermining the core security assumptions of Delegated Proof-of-Stake.

01

The Centralizing Node

LSD protocols like Lido and Rocket Pool consolidate validator selection into a few node operators. This recreates the centralized validator problem PoS was meant to solve.\n- Lido's ~30 node operators control ~30% of Ethereum stake.\n- Validator client diversity collapses, increasing systemic software risk.

~30%
Stake Controlled
<10
Key Entities
02

The Slashing Disconnect

LSD holders bear slashing risk but have zero control over validator behavior. This breaks the "skin-in-the-game" feedback loop essential for PoS security.\n- Economic penalties are diluted and socialized across passive holders.\n- Malicious validators can be subsidized by the pooled capital of unaware delegators.

0%
Holder Control
100%
Risk Exposure
03

The Rehypothecation Bomb

LSDs (e.g., stETH, rETH) are used as collateral across DeFi (Aave, Maker), creating nested leverage. A cascading depeg could trigger a system-wide liquidity crisis.\n- $10B+ of stETH is deployed as collateral.\n- Liquidation spirals become a network-level threat, not just a protocol failure.

$10B+
Collateral Deployed
Nested
Leverage Risk
04

The Governance Attack Vector

LSD providers become meta-governance powers, wielding the voting rights of all staked tokens. This centralizes protocol governance (e.g., Uniswap, Aave) into a few LSD DAOs.\n- Vote delegation defaults to the LSD provider, not the underlying capital owner.\n- Protocol upgrades can be held hostage by LSD cartels.

Meta-Governance
Power Concentration
Cartel Risk
Upgrade Control
05

The Yield-Driven Instability

LSDs turn staking into a yield-bearing asset, attracting mercenary capital that will flee at higher yields elsewhere. This creates volatile stake ratios and weakens long-term network alignment.\n- Stake can rapidly exit via secondary markets, bypassing unbonding periods.\n- Security budget becomes correlated with DeFi yield farming trends.

Mercenary
Capital
Volatile
Stake Ratio
06

The Architectural Imperative

Solutions require protocol-level design: enforceable slashing for delegators, distributed validator technology (DVT), and penalties for LSD concentration. Look to Obol, SSV Network, and EigenLayer's cryptoeconomic security.\n- DVT decentralizes the node operator layer.\n- Dual-staking models (e.g., Cosmos) re-align slashing with liquidity.

DVT
Core Fix
Dual-Stake
Model Required
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How Liquid Staking Weakens DPoS Security (2024 Analysis) | ChainScore Blog