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algorithmic-stablecoins-failures-and-future
Blog

Why LSTs Are the Linchpin of the Next-Gen Reserve Engine

Liquid Staking Tokens (LSTs) solve the fundamental trilemma of stablecoin reserves: capital efficiency, native verifiability, and sustainable yield. This is the blueprint for the next generation of decentralized money.

introduction
THE FOUNDATION

Introduction

Liquid Staking Tokens (LSTs) are evolving from a yield product into the foundational collateral layer for a new wave of on-chain financial primitives.

LSTs are programmable yield. They transform the static yield of staked ETH into a composable financial primitive, enabling protocols like EigenLayer and Ethena to build new economic systems on top of a unified yield-bearing base.

The reserve engine is liquidity. LSTs provide the high-quality, yield-generating collateral that powers next-generation stablecoins, restaking, and money markets, moving beyond the USDC/USDT duopoly that currently dominates DeFi.

This is an infrastructure shift. The competition is no longer just about staking yield; it is about which LSTs—be it stETH, sfrxETH, or rsETH—become the most trusted reserve asset for the entire ecosystem.

deep-dive
THE ENGINE

The LST Reserve Thesis: Capital Efficiency Meets Native Verifiability

Liquid Staking Tokens (LSTs) are the optimal reserve asset for cross-chain protocols, merging high yield with native security.

LSTs are yield-bearing collateral. Protocols like Aave and Compound use stETH and wstETH as collateral, allowing users to earn staking yield while borrowing. This creates a capital efficiency multiplier absent with static assets like USDC.

Native verifiability beats wrapped assets. An LST's value is cryptographically tied to its home chain's consensus. This eliminates the oracle risk and bridge vulnerabilities inherent in wrapped assets like wBTC or multichain USDC.

The reserve engine is cross-chain. LSTs are the ideal backing for LayerZero-style omnichain fungible tokens or Circle's CCTP-settled stablecoins. Their yield offsets minting/bridging costs, creating a sustainable economic flywheel.

Evidence: Lido's wstETH is the second-largest DeFi collateral asset. Its expansion to Arbitrum, Optimism, and Base via native bridges demonstrates the demand for verifiable, yield-bearing liquidity across the stack.

LIQUID STAKING TOKENS VS. TRADITIONAL ASSETS

Reserve Asset Showdown: LSTs vs. The Old Guard

A first-principles comparison of capital efficiency, composability, and systemic risk for DeFi's foundational collateral.

Feature / MetricLiquid Staking Tokens (LSTs)Native Staked Assets (e.g., stETH, rETH)Traditional Stablecoins (e.g., USDC, DAI)Yield-Bearing Stablecoins (e.g., sDAI, USDY)

Capital Efficiency (Yield Source)

Native chain security + DeFi yield

Native chain security only

Exogenous (off-chain) yield

Exogenous yield + DeFi strategies

Base Yield (APY, Approx.)

3-5% (Protocol rewards)

3-5% (Consensus rewards)

0%

5-8% (Strategy-dependent)

Composability (DeFi Lego)

Re-staking Viability (e.g., EigenLayer)

Primary Systemic Risk

Smart contract & slashing

Validator slashing

Centralized issuer & regulatory

Underlying strategy failure

Settlement Finality for Cross-Chain

Delayed (~1-2 epochs)

Delayed (~1-2 epochs)

Instant

Instant

TVL Dominance in DeFi (2024)

25% and growing

N/A (subset of LSTs)

~50% and declining

<5%

Oracle Reliance for Pricing

protocol-spotlight
LIQUID STAKING DERIVATIVES

On-Chain Blueprints: Protocols Already Building the Future

LSTs are evolving from simple yield tokens into the foundational collateral for a new wave of DeFi primitives, creating a self-reinforcing economic engine.

01

EigenLayer: The Restaking Super-App

The Problem: New protocols (AVSs) need their own decentralized security, a costly and slow bootstrapping process. The Solution: EigenLayer enables the re-staking of ETH/LSTs to secure a marketplace of external systems, from oracles to new L2s. This monetizes idle security and creates a flywheel for innovation.

  • $16B+ TVL secured for Actively Validated Services (AVSs).
  • Unlocks native yield + AVS rewards on the same capital.
$16B+
TVL Secured
2x+
Yield Sources
02

Ethena's USDe: The Synthetic Dollar Engine

The Problem: Stablecoins are either centralized (USDC) or capital-inefficient (overcollateralized DAI). The Solution: USDe uses stETH as delta-neutral collateral, pairing it with short ETH futures to create a scalable, crypto-native stablecoin. This turns staking yield into a foundational monetary primitive.

  • $2B+ Supply backed by stETH and derivatives.
  • Generates yield from staking + futures basis.
$2B+
Stable Supply
30%+
APY (Annualized)
03

Pendle: Yield-Trading as a Core Primitive

The Problem: LST yield is locked and unpredictable, limiting its utility as a financial asset. The Solution: Pendle separates LST principal from future yield, creating tradable yield tokens (YT) and principal tokens (PT). This enables leveraged yield farming, hedging, and fixed-income markets.

  • $5B+ in cumulative volume for yield trading.
  • Enables fixed-rate borrowing against future staking rewards.
$5B+
Trading Volume
Fixed
Yield Markets
04

The Morpho Blue Flywheel

The Problem: Lending markets are monolithic and inefficient, with one risk curve for all collateral types. The Solution: Morpho Blue's isolated market architecture allows for hyper-optimized, LST-specific lending pools. This creates superior risk/reward profiles and deeper liquidity for staked assets, fueling leveraged staking strategies.

  • ~90% capital efficiency for top-tier LST collateral.
  • Enables non-custodial, permissionless LST leverage.
90%
Capital Efficiency
0
Protocol Risk
05

Karak: The Universal Yield Layer

The Problem: Yield from LSTs and other sources is fragmented and underutilized across chains. The Solution: Karak acts as a generalized restaking layer, aggregating yield from LSTs, LRTs, and LP positions to secure a cross-chain network. It abstracts yield into a universal security commodity.

  • Secures bridges, oracles, and sequencers with aggregated yield.
  • Multi-chain deployment from day one (Ethereum, Arbitrum, etc.).
Multi-Chain
Deployment
Aggregated
Yield Source
06

The LRT (Liquid Restaking Token) Meta

The Problem: Restaking in EigenLayer locks LST liquidity and bundles exposure to multiple AVS risks. The Solution: Protocols like Ether.fi, Kelp DAO, and Renzo issue Liquid Restaking Tokens (eETH, KEP, ezETH). These abstract away AVS complexity, provide liquidity, and enable a second-layer DeFi ecosystem on top of restaked capital.

  • $10B+ combined TVL in the LRT sector.
  • Creates a derivative-on-derivative leverage point for the reserve engine.
$10B+
Sector TVL
2nd Order
Leverage
counter-argument
THE REALITY CHECK

The Bear Case: LSTs Aren't a Silver Bullet

Liquid staking tokens are foundational but introduce systemic risks that a next-gen reserve engine must mitigate.

LSTs centralize staking power. The dominance of Lido, Coinbase, and Binance creates a single point of failure for the underlying consensus layer, contradicting the decentralized ethos of the reserve asset.

LSTs are not risk-free yield. They embed slashing risk and depeg risk from validator misbehavior or smart contract exploits, as seen in past incidents on Solana and Ethereum.

Composability creates fragility. LSTs like stETH become collateral in DeFi (Aave, MakerDAO), creating reflexive loops where a depeg triggers cascading liquidations across the system.

Evidence: Lido commands ~30% of Ethereum's stake, nearing the 33% threshold for potential consensus attacks, a centralization vector no reserve engine can ignore.

takeaways
THE RESERVE ENGINE PRIMER

TL;DR for Builders

Liquid Staking Tokens (LSTs) are evolving from a yield product into the foundational collateral layer for a new wave of on-chain financial primitives.

01

The Problem: Idle Capital Silos

Staked ETH is locked, creating a $100B+ deadweight opportunity cost. DeFi protocols like Aave and Compound can't leverage this capital, fragmenting liquidity and limiting leverage loops.

  • Unlocks ~$30B in latent collateral for money markets.
  • Enables cross-protocol capital efficiency (e.g., stETH as collateral on Aave, then used in Curve pools).
  • Mitigates the security vs. utility trade-off of Proof-of-Stake networks.
$100B+
Locked Value
0x
DeFi Utility
02

The Solution: Programmable Yield-Bearing Reserve

LSTs transform staked assets into a composable, yield-accruing base money. This creates a native yield layer for stablecoins (like Maker's sDAI), restaking (EigenLayer), and structured products.

  • Native yield backs stable assets (e.g., sDAI's ~5% backing yield).
  • Serves as the canonical collateral for re-staking primitives and LSTfi.
  • Enables risk-tranching and yield-optimizing Vaults (e.g., Pendle, EigenLayer).
3-5%
Native Yield
1 Asset
Multi-Role
03

The Architecture: LSTfi & The Super-Collateral Stack

The next layer is LSTfi—using LSTs as collateral to mint stablecoins, borrow assets, or secure external networks. This creates a recursive financial stack anchored in crypto-native yield.

  • MakerDAO: Uses stETH and rswETH as primary collateral for DAI.
  • EigenLayer: LSTs are the key deposit asset for Actively Validated Services (AVS).
  • Lybra & Prisma: Mint yield-bearing stablecoins (e.g., peUSD) directly against LSTs.
>$10B
LSTfi TVL
2x
Utility Layer
04

The Risk: Centralization & Depeg Vectors

The Lido dominance problem (~70% of staked ETH) creates systemic risk. A slashing event or oracle failure could cascade through the entire LSTfi stack. Builders must design for collateral diversity and circuit breakers.

  • Mitigate with basket indices (e.g., Diva, Stader).
  • Incorporate slashing insurance modules.
  • Audit oracle dependencies (e.g., Chainlink, Pyth) for price feeds.
~70%
Lido Share
High
Systemic Risk
05

The Build: Native Yield Integration Patterns

Integrate LSTs not as an afterthought, but as the primary economic engine. Design protocols where the yield is a core feature, not a side benefit.

  • Vaults that auto-compound and re-stake (e.g., Kelp DAO).
  • **Stablecoins with yield-streaming to holders (e.g., Ethena's USDe).
  • **Lending markets with yield-adjusted LTV ratios.
Auto-Compound
Key Feature
Core Engine
Design Paradigm
06

The Frontier: Cross-Chain LSTs & Intent-Based Settlement

LST liquidity will become omnichain. LayerZero, Axelar, and Wormhole enable staked positions to move across ecosystems. Intent-based architectures (UniswapX, Across) will allow users to stake, bridge, and deploy capital in a single transaction.

  • **Unlocks multi-chain capital aggregation.
  • **Enables single-transaction, cross-chain yield strategies.
  • Reduces fragmentation of staking derivatives across L2s.
Omnichain
Liquidity
1-Click
Strategy
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LSTs: The Reserve Engine for Next-Gen Stablecoins | ChainScore Blog