Skip to main content

This site is for educational purposes only. Nothing here constitutes financial advice.

Topic 75 of 179

Liquid Staking Tokens and Restaking

How stETH/rETH liquid staking tokens work, why EigenLayer's restaking model created a new economic primitive, and what AVS economics mean for the broader Ethereum ecosystem.

Beginner
8 min readUpdated July 2026Block Clarity Hub Editorial Team

The Liquid Staking Idea

Ethereum's proof-of-stake security comes from validators staking 32 ETH each, earning rewards (~3-5% APY) for honest validation. The catch: staked ETH is locked, and exits take 1-2 days to process. Liquid staking tokens (LSTs) solve this. You deposit ETH into Lido and receive stETH in return — a token that represents your staked position. stETH continues to accrue staking yield (its quantity grows over time, or its price grows depending on the design) and can be freely traded, used as DeFi collateral, etc. You get the yield without locking the asset.

Who's in This Space

**Lido** is by far the largest, with ~30% of all staked ETH represented as stETH. **Rocket Pool** offers a more decentralised alternative with rETH. **Coinbase Wrapped Staked ETH (cbETH)** is the largest CEX-affiliated LST. **Frax** has sfrxETH. **Mantle** has mETH. Each has different decentralisation properties, validator distribution, and operational structure. Lido's dominance has been a source of community concern — at >32% of staked ETH, it crosses the threshold where it could in theory affect consensus.

What Restaking Added

EigenLayer (launched 2024 mainnet) introduced restaking: take your staked ETH (or LST) and 'restake' it to secure additional services beyond Ethereum's consensus. The restaked ETH backs 'Actively Validated Services' (AVSs) — protocols like cross-chain bridges, data availability layers, custom rollups, oracle networks. AVSs pay restakers for the security; restakers earn ETH staking yield + AVS rewards. This created a new economic primitive: Ethereum-backed security as a marketable commodity.

  • LSTs let you stake ETH for yield without locking the position
  • Lido (stETH) is dominant; Rocket Pool (rETH), Coinbase (cbETH), Frax, others compete
  • EigenLayer restaking lets staked ETH back additional services (AVSs)
  • Restaking creates a new commodity: Ethereum security as a marketable asset

Key Takeaways

  • LSTs solve the 'staked ETH is locked' problem with tradeable receipt tokens
  • Lido is by far the largest LST — at >30% of staked ETH, decentralisation concern is live
  • Restaking extends staking utility: ETH-backed security for non-Ethereum services
  • AVS economics are still maturing; the model is meaningful and unprecedented

Related Content

ERC-6551 Token-Bound Accounts

How ERC-6551 lets NFTs own smart contract wallets that can in turn own other assets — enabling 'NFTs that own NFTs,' character-bound inventories, and new composability patterns.

Ordinals, Inscriptions, and BRC-20

How Casey Rodarmor's 2023 Ordinals protocol brought NFTs and tokens to Bitcoin via inscriptions, what BRC-20 means in practice, and how Runes evolved the model.

Algorithmic Stablecoin Failures — Deep Catalogue

How Terra UST, Iron Finance, USDR, and various other algorithmic stablecoins failed — the specific mechanisms in each case, and why all unbacked algorithmic stablecoins face the same structural risk.

Delta-Neutral Stablecoins (Ethena sUSDe)

How Ethena's sUSDe captures perpetual funding rates by hedging spot crypto with short perpetuals, what makes it different from algorithmic stablecoins, and the structural risks beneath the surface.

Options Greeks On-Chain

How delta, gamma, vega, and theta translate from traditional options markets to on-chain protocols like Lyra, Aevo, and Premia — and what's structurally different about decentralised options markets.

TWAP and VWAP Execution Algorithms

How time-weighted and volume-weighted average price execution algorithms split large orders to minimise market impact, and what their crypto-native equivalents look like on DEXs and CEXs.

AMM Curves Compared

How constant-product (Uniswap V2), concentrated-liquidity (Uniswap V3/V4), stable-swap (Curve), and weighted-pool (Balancer) AMMs differ mathematically — and which to use for which asset pairs.

Volatility Products

How variance swaps, volatility tokens, and structured products let users trade volatility itself rather than direction — and the on-chain protocols building this category.

References & further reading