Reassessing Restaking Risks.pdf

Reassessing Restaking Risks -

How Institutional Stakers and Node Operators Can Evaluate AVSs and LRT

Daemon Day @TOKEN2049 Singapore - September 2024


Freddy Zwanzger

Ethereum Ecosystem Lead @ Blockdaemon

● Co-Founder & Chief Data Officer (2018 – 2021) at Anyblock Analytics GmbH
→ acquired by Blockdaemon (since Dec 2021)


What to expect

  1. Why are we here? - State of Restaking
  2. What is Restaking? - Brief Recap
  3. Stacking of Considerations & Risks
  4. Comparing to Bonds
  5. Takeaways

Why are we here? - State of Restaking

Quickly developing narrative! → in crypto historically means to better proceed with caution…

Protocols Chain TVL
Live on Ethereum
EigenLayer Ethereum $17.645 B
Karak Ethereum $915.49 M
Symbiotic Ethereum $316.5 M
Live on Other Ecosystems
Solayer Solana $74.11 M
Merlin Bitcoin -
Pell Network Bitcoin $133.84 M
Allstake Solana&NEAR $12.72 M
Parasail Filecoin $60.46 M
Octopus Network NEAR $2.84 M

State of Restaking - Room to Grow
STAKING RESTAKING
~28% $ETH is in STAKING of which ~41% is in LIQUID STAKING ~16% is in RESTAKING ~12% is in LIQUID RESTAKING
Data as of Sept 2024, sources: Ultrasound Money, Beaconcha.in, Blocklytics on Dune, DefiLlama (1, 2)

What is Restaking? - Brief Recap

Restaking generally means reusing staked collateral to provide economic security to projects

● for stakers: additional reward opportunities for an increased level of risk

● for AVSs (Actively Validated Services): “security as a service” tailored to their needs

Note: All restaking protocols now allow many ERC-20 tokens beyond ETH/LSTs as collateral.

This can add utility to tokens of secured protocols and actually outsource their security as staking-as-a-service (so not just RE-staking anymore).


Stacking of Considerations

● Protocol Selection (continuous)
● + Asset Selection (continuous)
● + AVS Portfolio Selection (cont.)
● Node Operator Selection (1x)


Risks in (Re)Staking

01
Slashing (maliciously or stupid)
02
Downtime (offline penalty)
03
Liquidity (exit/withdrawal queue, peg/depth for LSTs/LRTs)

Correlations are the real danger!

● Staking: client bugs
● LST / LRT / Restaking platforms: smart contract bugs
● AVSs: correlated slashings


Modeling of Restaking Risks is Evolving

But early and mostly highly mathematical…


Comparing to Bonds

Non-liquid vs. liquid positions


Risk vs. Return of Restaking

● Restaking is new -> risk will be higher than potential return at the moment
● 6-12 months should see:

○ Risk reduced as software matures
○ Regulation is made clearer
○ Rewards begin to be earned in full on networks - just as we saw with traditional ETH staking


Staking options for institutions as of now:

| Staking | $ eq$~3.5% native ETH rewards $

eq$Lowest risk (“Internet bond”) | AVAILABLE NOW |
| --- | --- | --- |
| Liquid Staking | $ eq$Liquidity (swap in/out without delay) $ eq$Utility of LST (leverage, Defi, ...) $ eq$No 32 ETH increments needed* | AVAILABLE NOW (Permissioned for Institutions: LIQUID COLLECTIVE) |
| Restaking | $ eq$Developing opportunity for additional rewards (vs. risks) $ eq$Delegate to Blockdaemon or dedicated white-label set of AVSs | Ecosystem developing |
| Liquid Restaking | $ eq$Institutions need to understand risks and rewards | Ecosystem developing |

APPENDIX / BACKUP


Stacking of Considerations: Checklist

Staking - Liquid Staking - Restaking - Liquid Restaking

● Is the node operator a known and trusted entity, with reputation at stake?
● What is the node operator’s track record of performance?
● How ‘good’ of a job do they do operating infrastructure on the network, and receiving network rewards for doing so?
● What kinds of risk mitigations does the node operator have in place, to reduce the risk of slashing, mitigate operational or security risks, etc.?

Liquid Staking - Considerations of the LSP include:

● Are the liquid staking protocol’s smart contracts audited? Has the code deployed to mainnet received security reviews and/or code audits?
● How long does deposited ETH pass through the protocol before it is programmatically staked via Ethereum’s deposit contract?
● Has the liquid staking protocol’s code been made public, so that external security researchers and participants can evaluate it?

Restaking - Considerations of the AVSs and operators include:

● How long has the LSP been active without a meaningful security incident or loss of staked funds?
● What are the slashing risks and conditions associated with the AVS? Under what circumstances can staked tokens be slashed, due to the behavior of the restaking operators, etc?
● As with staking and liquid staking, are the AVS operators reputable and experienced?
● Do they have slashing mitigations in place that meet the slashing considerations of the AVS?
● What is the economic model of the AVS, and how does the AVS and the operators being delegated to manage economic incentives?
● Does the AVS have any governance mechanism?
● Does the AVS introduce any external risks due to the services it is offering, such as additional attack vectors or liquidation risks?

Liquid Restaking - Considerations of the LRTs include:

● All of the above, plus
● Diligence process of selecting and monitoring operators and AVSs (e.g. correlations, risk-reward trade-offs, liquidity)
● Compliance considerations


Attribute Sovereign bonds L1 staking positions AVS restaking positions
Liquidity/Leverage Illiquid as individual assets, not easy to borrow against
Yield Source: Sovereign treasury Denomination: Sovereign currency Source: L1 protocol Denomination: L1 token Source: AVS protocol Denomination: AVS specified
Duration Fixed maturity Withdrawals rate limited by the L1 protocol Withdrawals rate limited by the AVS, the restaking protocol, and the L1 protocol
Default No default because the Sovereign controls the money supply L1 slashing where some or all of principal can be destroyed Both AVS slashing and L1 slashing where some or all of the principal can be destroyed
Portfolio construction Single asset portfolio
Attribute Bond funds LSTs LRTs
Liquidity/Leverage Liquid because of fungibility, easy to borrow against
Yield Source: Sovereign treasury Denomination: Sov. currency Aggregation over: Many interest rates and durations Source: L1 protocol Denomination: L1 token Aggregation over: Many node operators Source: AVS protocol Denomination: AVS specified Aggregation over: Many AVSs and node operators
Duration Many different maturities Withdrawals rate limited by the LST protocol and the L1 protocol Withdrawals rate limited by the LRT protocol, the restaking protocol, each underlying AVS, and the L1 protocol
Default Duration mismatch (e.g., SVB collapse), or illiquid redemption market (e.g., Sept.2019 Repo Crash) One/some of the L1 node operators getting slashed One/some of the AVS node operators or one/some of the L1 node operators getting slashed
Portfolio construction Low complexity: balancing many low risk assets Medium complexity: selecting L1 node operators and/or collateral ratios High complexity: choosing AVSs, AVS node operators, different interest denominations, L1 node operators and/or collateral