The Kelp DAO rsETH depeg of 2024 was a watershed moment in the liquid restaking ecosystem — the first major demonstration that LRTs can diverge significantly from their underlying value under stress, even when nothing fundamentally wrong is happening with the protocol. Understanding what happened, why it happened, and what lessons to draw is essential for anyone using or considering restaking products.
What happened with rsETH

The setup
Kelp DAO and rsETH:
- Liquid restaking protocol launched early 2024
- Users deposit ETH (or LSTs like stETH, ETHx) and receive rsETH
- Protocol stakes/restakes on behalf of users
- rsETH should track ETH value 1:1 over time (plus yield)
Growth to incident:
- Significant TVL attracted by restaking yields and airdrop points
- By mid-2024, rsETH had billions in TVL
- Secondary market liquidity on Curve, Balancer, Uniswap pools
- Integrated into major DeFi protocols as collateral
The depeg event
Timeline:
- Mid-2024: EigenLayer withdrawal delays extend significantly
- Users wanting to exit rsETH face choice: wait weeks for native redemption, or sell at market
- Many chose to sell, creating selling pressure on rsETH/ETH pairs
- rsETH trades at 2-5% discount to underlying ETH value
- Discount persists for extended period
Magnitude:
- Peak discount: ~5% below 1:1 parity
- Duration: Weeks rather than hours
- Significant dollar losses for users who sold during discount
- Stress across integrated DeFi protocols holding rsETH as collateral
Resolution:
- Over time, EigenLayer withdrawal processing caught up
- Arbitrageurs slowly closed the discount
- Peg largely restored
- But users who sold during peak discount realized real losses
Why the depeg happened
Structural mechanism:
- rsETH is a claim on eventually-withdrawable ETH
- Native withdrawal requires EigenLayer → staking exit queue
- This process takes days to weeks
- If users want liquidity sooner, they must sell on secondary markets
- If selling pressure exceeds buying pressure, rsETH trades at discount
Contributing factors:
- EigenLayer withdrawal delays: Longer than many users expected
- Points program ending: Reduced demand for rsETH as airdrop expectations normalized
- Competitive LRTs: Users shifting to other products
- Correlated selling: Market stress across crypto driving broader liquidity needs
What didn’t happen:
- No smart contract exploit
- No underlying protocol failure
- No slashing events of note
- No operator misbehavior
This is key: The depeg happened despite the underlying protocol functioning. It was a liquidity mismatch event, not a failure event.
Lessons from the incident
Lesson 1: LRTs are liquidity-mismatched products
The structural issue:
- Users deposit ETH expecting ~1:1 liquidity
- LRTs provide it via secondary markets, not native redemption
- When secondary market liquidity insufficient, discounts emerge
Implication: LRT “liquidity” is conditional — it exists when buyers and sellers are balanced, breaks when they’re not. Unlike holding ETH directly, LRT liquidity is a fragile property.
For users:
- Don’t treat LRTs as liquid as ETH
- Consider native redemption timelines when sizing positions
- Build discount risk into planning
Lesson 2: Withdrawal delays compound
The delay stack:
- Protocol-level processing (LRT to EigenLayer): Minutes to hours
- EigenLayer exit queue: Days
- Ethereum staking exit queue: Days (depending on network conditions)
- Total: Often 1-2 weeks, can be longer
Users didn’t internalize this: Many assumed LRT → ETH was near-instant based on secondary market trading. The native process is much slower.
Implication:
- Know your specific protocol’s withdrawal timeline
- Assume stress scenarios extend typical delays
- Don’t commit funds you might need in under 30 days
Lesson 3: Concentration risk in AVS selection
The problem: LRT protocols choose which AVSs to restake to. If users don’t understand or control that exposure:
- Risk is opaque to depositors
- Protocol-level choices affect all depositors
- Shifts in AVS landscape can impact LRT value
Kelp DAO specific: Kelp DAO had exposure to various AVSs. While none of these caused the depeg directly, the complexity meant users didn’t fully understand their risk.
Implication:
- Read protocol documentation about AVS selection
- Understand which AVSs your LRT exposes you to
- Consider diversification across multiple LRTs
Lesson 4: Secondary market liquidity is fragile
The pool dynamics:
- LRT/ETH pools require buyers and sellers
- Balanced demand → tight peg
- Imbalanced → peg breaks
- Thin pools → smaller imbalances cause larger moves
What happened to Kelp:
- Selling pressure exceeded buying pressure
- Pool depth was insufficient to absorb
- Prices moved to equilibrate, creating discount
Implication:
- Deeper pools = better peg stability
- Consider pool metrics when evaluating LRTs
- Be cautious about LRTs with thin secondary markets
Lesson 5: DeFi integration amplifies stress
Ripple effects:
- rsETH was accepted as collateral in various DeFi protocols
- Discount created liquidation pressure in those protocols
- Liquidations created additional sell pressure on rsETH
- Self-reinforcing dynamic during stress
General pattern:
- LRT integration into DeFi seems like utility
- During stress, integrations become vectors for stress transmission
- Multi-protocol systems fail together more than users expect
Implication:
- Understand how your LRT is used across DeFi
- Be aware of liquidation thresholds when using LRT as collateral
- During stress events, expect correlated failures
Comparing LRT depeg resilience
Different LRTs have demonstrated different behaviors during stress:
ether.fi (eETH):
- Maintained tighter peg during Kelp-era stress
- Factors: Non-custodial architecture, withdrawal structure, stronger liquidity
- Not immune — has experienced minor discounts during stress
- Overall: Better track record than Kelp DAO
Renzo (ezETH):
- Also experienced brief depeg in 2024
- Different mechanism than Kelp (multi-chain bridge-related)
- Resolution was faster
- Demonstrated multi-chain LRTs have additional failure modes
Lido stETH (not LRT but relevant):
- Longer history of peg stability
- Single-protocol exposure (just Ethereum staking)
- Occasional depegs during major events (May 2022 Terra, June 2022 Celsius)
- Generally more stable than LRTs because underlying mechanism simpler
Simpler = more stable: The pattern: fewer layers of complexity correlate with better peg stability. Pure staking (stETH) is more stable than restaking (rsETH, ezETH). Direct staking (your own validator) is more stable than stETH.
Practical risk assessment framework
Before depositing into any LRT, evaluate:
Protocol fundamentals
Team and transparency:
- Public team members?
- Active communication during stress events?
- Transparent about AVS exposure?
- Audit history and security posture?
Mechanism design:
- How does withdrawal actually work?
- What’s the worst-case withdrawal time?
- How are rewards distributed?
- What fees are charged?
AVS strategy:
- Which AVSs does the protocol delegate to?
- How are AVS selections made?
- Can users opt out of specific AVSs?
- What’s the operator model?
Market characteristics
Liquidity:
- Pool depth on Curve, Balancer, Uniswap
- 24-hour volume
- Bid-ask spreads during normal conditions
- Historical behavior during stress
DeFi integration:
- Which protocols accept the LRT?
- What are the borrowing terms against LRT?
- Liquidation thresholds?
- Oracle dependencies?
Historical performance
Peg history:
- Has it traded below 1:1?
- How deep were depegs?
- How long did they last?
- Did they resolve cleanly?
Stress event behavior:
- May 2022 Terra
- FTX collapse
- Specific restaking events like Kelp
- Each stress event reveals vulnerabilities
What to do if LRT depegs
If you hold LRT that’s trading at discount
Assess first:
- How deep is the discount?
- Why is it depegging (structural or fundamental)?
- What’s your time horizon?
- Do you need liquidity now?
Option 1: Hold and redeem natively
- Initiate native redemption process
- Wait for EigenLayer + Ethereum exit queue
- Eventually receive 1:1 underlying ETH
- Timeline: 1-4 weeks typically
- Locks in the yield you’ve earned
Option 2: Sell at discount
- Immediate liquidity
- Realize loss vs. 1:1 value
- Can redeploy into other opportunities
- Only makes sense if you have better use for funds immediately
Option 3: Buy more at discount
- If you believe peg will restore
- Additional LRT at lower effective price
- Risk: discount deepens further
- Reward: captured discount closes
Avoid common mistakes
Panic selling:
- Worst choice during peak stress
- Lock in maximum losses
- Recovery often closer than it feels
Doubling down without analysis:
- Buying more during genuine protocol distress compounds losses
- Distinguish temporary liquidity events from fundamental issues
Using LRTs as collateral during stress:
- Liquidation risk accelerates during depegs
- Either delever or exit LRT positions before stress
Trusting LRT trading price over value:
- LRT trading price reflects immediate market; not underlying value
- Hold-to-redeem captures underlying value
- Don’t be misled by secondary market prices if your timeline is flexible
How risks are evolving
Post-Kelp improvements
LRT protocol changes:
- Improved liquidity provisioning
- Better withdrawal mechanics
- Clearer user communication about risks
- More transparent AVS disclosures
Protocol category maturation:
- Users understand risks better
- Markets more efficient at pricing discounts
- Tools for evaluating LRT risk improving
- Regulatory attention shaping industry practices
Ongoing concerns
New AVS exposures:
- Increasing number of AVSs with varied risk profiles
- Hard to stay current on which AVSs your LRT exposes you to
- Correlated failure modes between AVSs
Liquidity fragmentation:
- Multiple LRTs competing for liquidity
- Thinner pools per individual LRT
- Worse peg stability potential
Regulatory uncertainty:
- Restaking may attract regulatory attention
- Enforcement actions could affect specific protocols
- Cross-border complications
Restaking risk hierarchy
Understanding relative risks helps decision-making:
Lowest risk: Hold ETH directly
- No staking rewards, but no protocol risks
- Full liquidity at all times
- Only price risk
Low risk: Direct staking (32 ETH validator)
- Base staking rewards
- Slashing risk (tiny probability for honest operators)
- Liquidity only via exit queue
Medium risk: Lido stETH
- Similar rewards to direct staking
- Added: smart contract, operator, depeg risks
- Better liquidity than direct staking
Higher risk: LRT (Kelp, Renzo, ether.fi, etc.)
- Higher yields from restaking
- Added: AVS slashing, deeper smart contract risk, worse depeg potential
- Liquidity fragile
Highest risk: Leveraged LRT positions
- Amplified yields and losses
- Multiple protocol exposures
- Cascade risk during stress
Related reading
- EigenLayer restaking critical guide
- ether.fi vs Lido vs Rocket Pool
- Staked ETH ETF explained
- What happens if a crypto exchange goes bankrupt?
- Best hardware wallets 2026: Ledger vs Trezor
- Is Bitcoin a good investment in 2026?
- Crypto glossary
- Crypto market overview
- Live crypto prices
The Kelp DAO rsETH depeg demonstrated that liquid restaking tokens are more fragile than many users realized — even when nothing fundamentally fails, liquidity mismatches can create significant discounts that translate to real losses for users who need to exit. The broader lesson applies to all LRTs: these are complex products whose “liquidity” is conditional on market conditions that can deteriorate rapidly. For users who understand the risks, restaking remains a legitimate yield opportunity. For users expecting savings-account-like safety, the Kelp episode illustrates why that expectation was always misaligned with actual product characteristics. Match your expectations to the real risk profile, and you can use these products appropriately; assume the marketing version of “safe high yield” is accurate, and you’ll eventually be disappointed.
This article is for informational purposes only and is not financial advice. DeFi protocols and restaking arrangements carry substantial risks including depeg scenarios, smart contract failures, and potential total loss of funds. Historical performance doesn’t guarantee future results. Always do your own research.




