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

Why LSTs Provide the Necessary Liquidity Layer for RWA Markets

Real World Asset protocols face a fatal liquidity problem. This analysis argues that Liquid Staking Tokens, with their deep AMM pools and robust secondary markets, are the only viable infrastructure layer to bootstrap RWA adoption.

introduction
THE LIQUIDITY PRIMER

Introduction

Liquid Staking Tokens (LSTs) are the foundational liquidity layer that unlocks scalable, composable Real-World Asset (RWA) markets.

LSTs are programmable collateral. They transform static, locked staking positions into dynamic financial primitives usable across DeFi. This programmability is the prerequisite for RWA collateralization on-chain.

Traditional finance lacks composability. A T-bill or corporate bond is a siloed asset. An LST like Lido's stETH or Rocket Pool's rETH is a native, yield-bearing asset that integrates with Aave, MakerDAO, and Compound instantly.

RWA markets require deep, stable liquidity. LSTs provide a multi-billion dollar, on-chain liquidity pool with predictable yield. Protocols like Ondo Finance and Maple Finance use this to back tokenized securities, avoiding the fragmentation of direct fiat on-ramps.

Evidence: The $40B+ LST market dwarfs all current RWA TVL. This liquidity buffer absorbs volatility and provides the capital efficiency needed for scalable RWA lending and trading.

thesis-statement
THE LIQUIDITY LAYER

The Core Thesis: Liquidity is a Prerequisite, Not a Feature

Liquid Staking Tokens (LSTs) are the foundational liquidity layer that unlocks composable, on-chain RWA markets.

RWA markets require deep, fungible liquidity to function. Without it, settlement fails and price discovery stalls. LSTs like stETH and sfrxETH provide the high-velocity, programmable capital that traditional asset pools lack.

LSTs are the native collateral of DeFi. Protocols like Aave and MakerDAO already treat them as prime collateral. This existing integration creates a ready-made financial rail for tokenized RWAs to plug into, bypassing years of infrastructure development.

Composability drives network effects. An RWA-backed stablecoin collateralized by stETH can be instantly lent on Aave or used as margin on GMX. This capital efficiency is impossible with siloed, off-chain asset pools.

Evidence: The stETH-ETH Curve pool is a ~$1B liquidity baseline. This depth allows protocols like EigenLayer to bootstrap billions in restaked security, demonstrating the model for RWA yield aggregation.

LIQUIDITY LAYER ANALYSIS

Liquidity Gap: LSTs vs. Nascent RWAs

A feature and metrics comparison between Liquid Staking Tokens and nascent Real-World Asset protocols, highlighting the infrastructure gap LSTs fill for RWA market development.

Liquidity Feature / MetricLiquid Staking Tokens (LSTs)Nascent RWA ProtocolsWhy LSTs Are the Bridge

Secondary Market Daily Volume

$1B - $5B

< $50M

Established DEX liquidity (Uniswap, Curve) vs. fragmented OTC

24-Hr Price Discovery

Continuous on-chain AMMs vs. manual NAV updates

Collateral Utility in DeFi

70% of DeFi TVL

< 5% of DeFi TVL

Native integration with Aave, Compound, Maker vs. bespoke, isolated pools

Average Slippage for $1M Trade

0.1% - 0.5%

5% - 20%+

Deep liquidity pools vs. shallow order books

Settlement Finality

< 13 seconds (Ethereum)

2 - 7 business days

On-chain atomic settlement vs. traditional custodial rails

Composability for Yield Strategies

Can be recursively leveraged (e.g., stETH -> Aave -> GLP) vs. static, locked positions

Oracle Dependency for Valuation

Minimal (consensus-derived)

Critical (off-chain data feeds)

Trust-minimized cryptographic security vs. reliance on TradFi oracles (Chainlink, Pyth)

Protocol-Controlled Liquidity (TVL)

$40B+ (Lido, Rocket Pool)

< $2B (Ondo, Maple)

Scale enables stable yields and lower volatility for derivative construction

deep-dive
THE LIQUIDITY LAYER

How LST Infrastructure Solves the RWA Liquidity Trilemma

Liquid Staking Tokens provide the composable, high-velocity capital layer that unlocks scalable Real-World Asset markets.

LSTs are programmable collateral. An LST like stETH or rETH is a native DeFi primitive that abstracts staked ETH into a fungible, yield-bearing asset. This creates a unified liquidity base for RWA protocols like Ondo Finance or Maple Finance, eliminating the need for bespoke, illiquid tokenization.

Composability solves fragmentation. The trilemma demands capital that is simultaneously liquid, secure, and yield-generating. An LST's native integration across Aave, Compound, and Uniswap provides instant liquidity depth that isolated RWA tokens cannot achieve, enabling efficient price discovery and leverage.

Velocity enables scale. Traditional asset tokenization locks capital. LSTs enable recursive yield strategies where capital earns staking yield while financing RWAs. This velocity multiplier, visible in protocols like EigenLayer's restaking, is the prerequisite for RWA markets to reach institutional scale.

Evidence: The $50B+ LST market, led by Lido and Rocket Pool, demonstrates the liquidity depth required. Ondo Finance's OUSG, a tokenized treasury product, uses USDC and stETH as primary collateral layers, directly leveraging this infrastructure for scale.

protocol-spotlight
THE LIQUIDITY ENGINE

Protocol Spotlight: Who's Building on the LST Layer?

LSTs transform staked ETH into a programmable, yield-bearing asset, creating the perfect collateral base for real-world asset tokenization.

01

Ondo Finance: The Institutional Bridge

The Problem: Traditional finance craves yield but can't touch volatile crypto assets.\nThe Solution: Ondo uses LSTs like stETH as the foundational collateral for tokenized U.S. Treasuries (OUSG). This creates a compliant, yield-stacking product for institutions.\n- Key Benefit: Unlocks billions in institutional capital via a familiar asset wrapper.\n- Key Benefit: Provides a stable, real-world yield sourced from crypto-native collateral.

$185M+
OUSG Market Cap
RWA Leader
Category
02

Mantle: The Native Yield Layer

The Problem: L2s bleed value to L1 stakers and struggle to bootstrap sustainable treasury revenue.\nThe Solution: Mantle's $mETH LST channels its staking yield directly back into the ecosystem via the Mantle Treasury. This creates a self-funding flywheel.\n- Key Benefit: Native revenue generation for protocol-owned liquidity and grants.\n- Key Benefit: Aligns holder, staker, and ecosystem incentives through a shared yield asset.

$2B+
mETH TVL
EigenLayer
Restaking Via
03

Ethena: The Synthetic Dollar Factory

The Problem: Stablecoins are either custodial (USDC) or volatile (DAI). The market needs a scalable, crypto-native, yield-bearing dollar.\nThe Solution: Ethena uses stETH as delta-neutral collateral to mint its USDe synthetic dollar, capturing both staking and futures funding yields.\n- Key Benefit: Creates a scalable, non-custodial stablecoin with native yield (~15-30% APY).\n- Key Benefit: LST liquidity is the critical input for its delta-hedging mechanism, directly linking DeFi yield to stablecoin growth.

$2B+
USDe Supply
~25% APY
Current Yield
04

The LST <> RWA Flywheel Thesis

The Problem: RWA tokenization is a one-way street—real assets come on-chain, but the liquidity is often siloed and static.\nThe Solution: LSTs create a virtuous cycle. RWA yield (e.g., from Treasuries) can be used to back LSTs, which in turn provide deeper liquidity for more RWAs.\n- Key Benefit: Yield Composability: LST yield + RWA yield creates superior risk-adjusted returns.\n- Key Benefit: Liquidity Unlocks Liquidity: A deep LST market lowers the capital cost for all on-chain financing, accelerating RWA adoption.

2-Sided
Market Growth
Core Thesis
Chainscore
counter-argument
THE LIQUIDITY TRAP

Counter-Argument: "But RWAs Need Their Own Native Liquidity"

Native RWA liquidity is a trap; composable LSTs provide a superior, universal settlement layer.

Native RWA liquidity fragments capital. Creating isolated pools for each asset class (T-bills, real estate, carbon credits) destroys the network effects that make DeFi work. This is the same mistake early DeFi made before Uniswap V3 and Curve created generalized liquidity.

LSTs are the ultimate settlement asset. An LST like stETH or sfrxETH is a high-yield, natively composable primitive. It is the universal base layer that all other yield-bearing assets, including RWAs, can be priced against and swapped into.

Composability beats isolation. A tokenized T-bill pool built on Maple or Centrifuge gains utility by integrating with Aave or Compound as collateral. This requires a common, trusted asset like an LST, not a bespoke stablecoin.

Evidence: The $30B+ LST market is the largest, most liquid yield-bearing asset class in crypto. Protocols like EigenLayer are building an entire restaking economy atop it, proving its role as foundational capital.

risk-analysis
THE LIQUIDITY TRAP

Risk Analysis: The Bear Case for LST-Backed RWAs

Liquid Staking Tokens (LSTs) are hailed as the perfect collateral for Real World Assets, but this symbiosis introduces systemic risks that could undermine both sectors.

01

The Oracle Problem: LSTs Are Not Stablecoins

LSTs like Lido's stETH and Rocket Pool's rETH are volatile assets, not price-stable collateral. This creates a dangerous feedback loop during market stress.\n- De-pegging Risk: An LST losing its peg (e.g., stETH at 0.94 ETH in June 2022) instantly devalues the RWA collateral pool.\n- Cascading Liquidations: Price drops trigger margin calls on RWA positions, forcing sell pressure on the already-depressed LST.\n- Oracle Latency: Slow price feeds during volatility can cause insolvencies before liquidations execute.

-6%
Historic Depeg
>1H
Oracle Lag Risk
02

Concentrated Counterparty Risk

The LST sector is dominated by a few large providers, creating a 'too-big-to-fail' concentration within RWA protocols.\n- Single Point of Failure: A smart contract bug or slashing event at Lido or Coinbase's cbETH could collapse multiple RWA markets simultaneously.\n- Regulatory Attack Vector: A regulatory action against a major LST provider (e.g., SEC classification) jeopardizes all RWAs backed by it.\n- Liquidity Fragility: RWA redemption depends on deep LST/ETH pools on DEXs like Uniswap; a liquidity crisis there traps RWA value.

>70%
Lido Dominance
1->Many
Failure Cascade
03

The Yield Double-Bind

LST yields (3-5%) and RWA yields (5-15%) create an unsustainable equilibrium that amplifies redemption pressure.\n- Yield Compression: If ETH staking yields rise, LST holders redeem to stake natively, draining RWA collateral liquidity.\n- Redemption Run: In a bear market, users flee to safety, unstaking LSTs and forcing RWA protocols to liquidate assets at fire-sale prices.\n- Maturity Mismatch: RWAs like private credit are illiquid with set maturities, but LSTs promise daily liquidity—a fundamental mismatch.

3-5% vs 5-15%
LST vs RWA Yield
7-Day
Unstaking Delay
04

Smart Contract & Slashing Risk

RWA protocols inherit the entire smart contract risk surface of the underlying LST, plus their own. Slashing adds an uncorrelated failure mode.\n- Nested Complexity: A bug in EigenLayer, Swell, or another restaking primitive could wipe out LST value and the RWA layer atop it.\n- Slashing Events: Validator misbehavior leads to punitive ETH loss, directly eroding the collateral backing RWAs with no recourse.\n- Insurance Gap: Current slashing insurance (e.g., EigenLayer native) is nascent and unlikely to cover large-scale RWA losses.

2-Layer
Risk Stack
0.5-2 ETH
Slashing Penalty
future-outlook
THE LIQUIDITY ENGINE

Future Outlook: The Convergence of Staking and Real Yield

Liquid Staking Tokens (LSTs) are evolving from yield-bearing assets into the programmable collateral layer for Real World Asset (RWA) markets.

LSTs are programmable collateral. Their composable, on-chain nature makes them superior to traditional cash or bonds for DeFi lending markets like Aave and Compound. This creates a native yield-backed stablecoin flywheel where LSTs back RWA loans.

Real yield demands real liquidity. RWA protocols like Centrifuge and Maple require deep, 24/7 liquidity pools. LSTs from Lido and Rocket Pool provide this via automated market makers (AMMs) like Uniswap V3, eliminating traditional settlement friction.

The convergence creates a new primitive. Projects like Ethena use stETH as delta-neutral collateral for its synthetic dollar. This model demonstrates how staking yield underpins new financial instruments, blending crypto-native and real-world cash flows.

Evidence: The total value locked (TVL) in LSTfi protocols surpassed $40B in 2024, with platforms like EigenLayer attracting billions by restaking LSTs for additional yield and security.

takeaways
THE LIQUIDITY ENGINE

Key Takeaways

Liquid Staking Tokens (LSTs) are the critical on-chain primitive that unlocks scalable, composable capital for Real-World Asset (RWA) markets.

01

The Problem: Illiquid, Silos of Capital

Traditional RWA pools lock capital in single-purpose vaults, creating fragmented liquidity and high opportunity cost for stakers. This limits market scale.

  • $0.5B+ in stranded capital per major protocol
  • Weeks-long unbonding periods kill capital efficiency
  • No native composability with DeFi's $100B+ lending and trading ecosystems
Weeks
Lock-up
$0.5B+
Stranded
02

The Solution: LSTs as Programmable Collateral

LSTs (e.g., stETH, rETH, sfrxETH) transform staked ETH into a yield-bearing, liquid asset. This creates a unified liquidity layer that can be natively leveraged across RWA protocols like Maple, Centrifuge, and Ondo.

  • $50B+ in existing, fungible LST liquidity ready for rehypothecation
  • Enables cross-margining: use one LST position to access multiple RWA yields
  • Instant liquidity via AMMs (Curve, Balancer) eliminates unbonding risk
$50B+
LST TVL
Instant
Liquidity
03

The Mechanism: Yield Stacking & Risk Tranching

LSTs allow protocols to separate base staking yield from RWA credit yield. This enables sophisticated risk/return products that attract institutional capital.

  • Base Layer: ~3-5% risk-free staking yield from Ethereum
  • Credit Layer: +5-15% yield from RWAs (loans, treasuries, invoices)
  • Protocols like EigenLayer and Karak use LSTs for restaking, securing both consensus and RWA layers
3-5%
Base Yield
+5-15%
RWA Premium
04

The Flywheel: LSTs Drive RWA Adoption

LST liquidity creates a virtuous cycle: more RWA yield attracts more LST deposits, which increases security and liquidity, lowering borrowing costs for RWAs.

  • Lower Cost of Capital: Deep LST liquidity reduces RWA borrower rates by ~200-300 bps
  • Enhanced Security: RWA protocols inherit Ethereum's $90B+ economic security via restaking
  • Regulatory Clarity: LSTs are established financial instruments, providing a clearer path for tokenized T-Bills and bonds
-200bps
Borrow Cost
$90B+
Security
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LSTs: The Liquidity Engine for RWA Markets | ChainScore Blog