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

Proof-of-Stake is Evolving Into a World of Derivative Layers

Native staking is no longer the endgame. It's becoming a base layer collateral primitive, fueling a complex financial stack of LSDs, restaking, and yield-tranching instruments. This is the new architecture of crypto capital efficiency.

introduction
THE STACK

Introduction

Proof-of-Stake consensus is no longer the endgame; it is the foundational capital layer for a new ecosystem of financial derivatives.

PoS is a capital primitive. The $100B+ in staked ETH and SOL is not idle. It is the underlying collateral for a new class of restaking protocols like EigenLayer and Babylon. These systems transform staked assets into productive capital for securing additional services.

Consensus is a commodity. The security of a monolithic chain like Ethereum is now a service that can be rebundled and resold. This creates a competitive market where specialized chains, from EigenLayer AVSs to Celestia rollups, bid for pooled security.

The endgame is derivative layers. The ultimate abstraction is intent-based coordination. Users express desired outcomes, and systems like UniswapX, Across, and layerzero solvers compete to fulfill them using the cheapest available security and liquidity from the derivative stack.

deep-dive
THE CAPITAL STACK

The Derivative Stack: From Base Layer to Tranched Yield

Proof-of-Stake is evolving into a multi-layered financial system where capital is recursively leveraged to create new yield-bearing assets.

Base Layer Staking is the foundational primitive, converting idle ETH into a productive asset via protocols like Lido and Rocket Pool. This creates the first derivative: staked ETH (stETH, rETH), which is a liquid claim on future validator rewards and principal.

Restaking introduces recursive leverage by using that staked ETH as collateral again. EigenLayer allows stETH to secure new services (AVSs), creating a second-order yield source and transforming base security into a commoditized input.

Liquid Restaking Tokens (LRTs) like those from Ether.fi and Renzo abstract this complexity, bundling staking and restaking yields into a single token. This creates a standardized asset for the next layer of the stack.

The final layer is structured products that slice this aggregated yield into risk tranches. Protocols like Pendle and Morpho separate the base ETH yield from the risky AVS reward stream, catering to capital with different risk appetites.

LIQUID STAKING DERIVATIVES & RESTAKING PRIMER

The LSD & Restaking Landscape: A Protocol Matrix

A comparison of leading protocols enabling capital efficiency and programmable security through staked ETH derivatives.

Feature / MetricLido (stETH)EigenLayer (Restaking)Rocket Pool (rETH)Ether.fi (eETH)

Core Asset

stETH

LSTs (stETH, rETH, etc.)

rETH

eETH (Liquid + Native Restaking)

TVL (USD)

$30B

$15B

~ $3.5B

~ $3.8B

Node Operator Decentralization

~ 40 Permissioned Operators

Permissionless AVS Operators

2,900 Permissionless NOs

Permissionless Node Operators

Native Restaking Support

Avg. Protocol Fee

10% of staking rewards

10-20% of AVS rewards

15% of staking rewards

Variable (1-2% + AVS fees)

Withdrawal Period

1-7 days (Queue)

Slashing + Unbonding Period

Instant (Secondary Market)

Instant (Secondary Market)

Yield Source

Ethereum Consensus + Execution

AVS Rewards (DA, Oracles, etc.)

Ethereum Consensus + Execution

Ethereum Staking + AVS Rewards

Liquidity Depth (DEX Pools)

$1B (Curve, Balancer)

N/A (Direct Deposit)

~ $200M (Uniswap, Balancer)

~ $500M (Balancer, Pendle)

risk-analysis
STAKING DERIVATIVES

The Systemic Risks of a Derivative-Led Future

Proof-of-Stake is evolving into a multi-layered financial system, where liquid staking tokens (LSTs) and their derivatives (LRTs) create complex, interconnected risk vectors.

01

The Liquidity-Tightness Paradox

LSTs like Lido's stETH and Rocket Pool's rETH create a false sense of liquidity. During a market crisis, the rush to exit the derivative can outpace the underlying chain's unstaking queue, creating a depeg risk. This is a systemic liquidity mismatch.

  • Key Risk: ~$40B+ LST TVL vs. Ethereum's ~30-day unstaking period.
  • Historical Precedent: The stETH depeg during the Terra/Luna collapse.
  • Systemic Linkage: LSTs are collateral in DeFi protocols like Aave and MakerDAO, amplifying contagion.
~30d
Unstaking Lag
$40B+
LST TVL
02

The Rehypothecation Cascade

Liquid Restaking Tokens (LRTs) from EigenLayer, Kelp DAO, and EtherFi stack leverage on leverage. Users stake ETH -> receive LST -> restake for LRT -> use LRT as DeFi collateral. This creates a nested dependency where a failure in any layer (AVS slashing, oracle attack) triggers a cascade.

  • Key Risk: Single ETH collateral backing multiple yield-bearing and security promises.
  • Opacity: Real-time risk exposure across EigenLayer AVSs, LRT protocols, and lending markets is untracked.
  • Contagion Vector: A major LRT depeg could simultaneously cripple restaking networks and DeFi liquidity.
3x+
Leverage Layers
High
Correlation Risk
03

Validator Centralization via Derivatives

LST protocols naturally centralize validator control. Lido dominates with ~30% of Ethereum validators, creating a single point of failure. The economic efficiency of large staking pools creates a winner-take-most market, undermining Proof-of-Stake's decentralized security model.

  • Key Risk: A governance attack or technical bug in a major pool could threaten chain finality.
  • Metric: Lido's >33% validator share is a critical threshold for potential chain attacks.
  • Solution Space: DVT (Distributed Validator Technology) from Obol and SSV Network is critical to decentralize the node layer beneath derivatives.
~30%
Lido Share
>33%
Attack Threshold
04

Yield Compression & Economic Attack Surfaces

The derivative stack (LST -> LRT -> yield strategies) compresses native staking yield while adding smart contract risk. This creates perverse incentives where users chase points and airdrops over sustainable yield, masking underlying risk. The system becomes vulnerable to economic attacks targeting the weakest yield-bearing link.

  • Key Risk: Collapse in "points farming" demand could trigger a mass unwind of restaked positions.
  • Attack Surface: Complex yield strategies on Pendle or EigenLayer become targets for manipulation.
  • Real Yield: Native staking yield is diluted by the fees extracted at each derivative layer.
High
Contract Risk
Low
Real Yield
future-outlook
THE DERIVATIVE LAYER

Future Outlook: The Endgame is Capital Markets

Proof-of-Stake is evolving from a consensus mechanism into a foundational layer for a global, on-chain capital market.

Native yield is a primitive. Staked ETH (stETH) and similar liquid staking tokens (LSTs) are the foundational collateral for a new financial system. Protocols like EigenLayer and Babylon are abstracting this yield into a tradable commodity, enabling restaking and Bitcoin staking to secure new networks.

Capital efficiency drives innovation. The next evolution is LST derivatives and restaked assets (LRTs). Platforms like Kelp DAO and Renzo bundle and rehypothecate staked capital, creating layered yield products that maximize returns and unlock liquidity for DeFi lending on Aave and Compound.

Validators become capital allocators. The role of a validator shifts from pure block production to managing a portfolio of restaking yields and MEV extraction. This professionalizes the staking sector, creating a market for validator services based on risk-adjusted returns.

Evidence: EigenLayer has over $15B in Total Value Restaked, demonstrating massive demand for yield-bearing security. This capital is now the feedstock for actively validated services (AVS) like AltLayer and EigenDA, proving the model's viability.

takeaways
THE RESTAKING FRONTIER

Key Takeaways for Builders and Investors

The monolithic validator is being unbundled, creating new markets for security, execution, and governance.

01

The EigenLayer Problem: Security is a Commodity, Not a Product

EigenLayer's restaking model treats cryptoeconomic security as a fungible resource, enabling ~$20B+ in TVL to be repurposed. This creates a new market for Actively Validated Services (AVS) but introduces systemic slashing risks.

  • Key Benefit: Unlocks permissionless innovation for new middleware (e.g., oracles, bridges).
  • Key Benefit: Monetizes idle stake, boosting validator yields by 5-15% APY.
$20B+
TVL
5-15%
APY Boost
02

The Babylon Solution: Securing PoS with Bitcoin

Babylon uses Bitcoin's timestamping and finality to secure Proof-of-Stake chains without liquid staking derivatives. It turns Bitcoin into a universal slashing engine, solving the 'weak subjectivity' problem for new chains.

  • Key Benefit: Eliminates the 7-day unstaking delay, enabling instant stake portability.
  • Key Benefit: Provides $1T+ of Bitcoin's security to any PoS chain, reducing startup costs.
$1T+
Security Backing
Instant
Portability
03

The Karak Thesis: Generalized Restaking as a Yield Layer

Karak extends the restaking primitive beyond Ethereum to any asset (e.g., stablecoins, LSTs) and any chain. It abstracts security into a generalized yield layer, competing directly with EigenLayer and liquid restaking tokens (LRTs) like Ether.fi.

  • Key Benefit: Multi-asset collateral diversifies risk and expands the addressable security market.
  • Key Benefit: Native cross-chain architecture avoids the bridging risks of Ethereum-centric models.
Multi-Asset
Collateral
Native
Cross-Chain
04

The LRT Wars: Liquidity vs. Security Fragmentation

Liquid Restaking Tokens (LRTs) like Ether.fi's eETH and Renzo's ezETH abstract restaking complexity but create a new layer of risk. They introduce depeg risk, points farming meta-games, and opaque AVS exposure, fragmenting Ethereum's security.

  • Key Benefit: Provides liquid, tradable exposure to restaking yields, fueling ~$10B+ DeFi TVL.
  • Key Benefit: Democratizes access for small stakers but centralizes delegation power in a few node operators.
$10B+
DeFi TVL
High
Centralization Risk
05

The Alt-L1 Play: Native Restaking as a Moat

Chains like Sui and Aptos are exploring native restaking to bootstrap their own security and ecosystem services. This creates a captive market for their stake, reducing reliance on Ethereum's security exports and fostering chain-specific AVS ecosystems.

  • Key Benefit: Increases chain sovereignty and captures more value within the native token economy.
  • Key Benefit: Reduces competitive leakage to Ethereum LRTs, but may limit interoperability.
Captive
Security Market
High
Sovereignty
06

The Endgame: Modular Security Markets

The future is a competitive marketplace where security is provisioned on-demand from providers like EigenLayer, Babylon, and Karak. Execution layers will lease security, and stakers will optimize yields across a portfolio of slashing conditions, creating a true security yield curve.

  • Key Benefit: Drives efficiency, lowering security costs for new chains by ~30-50%.
  • Key Benefit: Forces specialization, with providers competing on slashing enforcement and risk pricing.
30-50%
Cost Reduction
On-Demand
Security
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Proof-of-Stake is Evolving Into a World of Derivative Layers | ChainScore Blog