What Is EigenLayer: Complete Restaking Protocol Guide (2026)

— By Tony Rabbit in Tutorials

What Is EigenLayer: Complete Restaking Protocol Guide (2026)

What is EigenLayer? Complete 2026 restaking guide: AVS taxonomy, native vs LST/LRT, slashing risks, EIGEN tokenomics, and how it compares to Symbiotic and Karak.

If you have spent any time in crypto since 2024, you have heard the word restaking. EigenLayer is the protocol that introduced this concept, turned it into the largest single narrative of the last two years, and absorbed more than fifteen billion dollars of deposits at its peak. Restaking lets you reuse the economic security of Ethereum validators to secure other services, and EigenLayer is the smart contract layer that makes it possible.

The promise sounds almost too good. You stake ETH once, you get the normal Ethereum yield, and then you opt in to secure additional protocols on top of that, earning extra rewards from each one. In practice, EigenLayer has reshaped how new infrastructure launches in crypto. Bridges, oracles, data availability layers, and entire rollup ecosystems can rent Ethereum-grade security on day one instead of bootstrapping their own validator set from zero.

In this complete 2026 guide you will learn what EigenLayer actually is, how restake mechanics work under the hood, the difference between native restaking and liquid restaking, the full taxonomy of AVS services, how the EIGEN token works, the real slashing risks, and how EigenLayer compares to its competitors Symbiotic and Karak. By the end you will understand whether restaking is a free yield, a clever security primitive, or a leveraged bet on Ethereum infrastructure.

EigenLayer restaking protocol dashboard showing total value locked and operator statistics on Ethereum mainnet
EigenLayer dashboard showing TVL, operators, and active validated services.

What Is EigenLayer

EigenLayer is a set of smart contracts on Ethereum that lets users opt in to providing extended cryptoeconomic security to third-party protocols. It was conceived by Sreeram Kannan, a researcher and professor at the University of Washington, who started designing the protocol in 2021 and launched the first mainnet contracts in mid-2023 with restricted deposit caps. By April 2024, deposits had crossed fifteen billion dollars, making EigenLayer one of the largest protocols in DeFi by total value locked.

The core insight behind EigenLayer is that Ethereum has an enormous pool of staked capital, currently more than thirty-five million ETH, securing only one thing: Ethereum consensus. That capital is mostly idle from a security perspective. EigenLayer asks: what if validators could choose to put their staked ETH at additional risk to also secure other services, in exchange for additional rewards? That is the entire restaking thesis in one sentence.

EigenLayer itself does not validate anything. It is a marketplace that connects three parties. Restakers deposit ETH or ETH-based assets. Operators run the actual validation software for external services and can borrow restaked capital as their collateral. Active Validated Services, or AVSs, are the third-party protocols that need security and pay operators in exchange for it. The smart contracts handle the slashing logic, the rewards distribution, and the opt-in registration of who is validating what.

Pooled Security: The Big Idea

Bootstrapping a new blockchain or piece of infrastructure has always been brutally hard. If you want to launch a new proof-of-stake chain, you need a token, you need to distribute it, you need validators to bond it, and you need a market price that makes attacking the chain economically irrational. This bootstrapping problem is why most new chains in 2020 to 2023 launched with tiny validator sets and security budgets in the low millions, even when they processed billions in transaction volume.

EigenLayer breaks this bootstrap problem by letting new services rent security from Ethereum directly. Instead of building a validator set from scratch, an AVS can require its operators to have a minimum amount of restaked ETH at stake. If the operator misbehaves, the AVS triggers slashing through EigenLayer contracts, and the operator loses real ETH. The economic security of the AVS is now backed by Ethereum's massive capital pool from day one.

This is sometimes called pooled security or shared security. It is conceptually similar to what Cosmos does with Interchain Security or what Polkadot does with parachains, but with one critical difference: in EigenLayer the security comes from Ethereum's existing validator set, which is the deepest pool of staked capital in crypto. Polkadot validators secure Polkadot. EigenLayer operators can secure dozens of different services at the same time, with the same underlying ETH collateral.

The EigenLayer Architecture Stack

The protocol is organized as a clean three-layer stack. Understanding this stack is the fastest way to grasp how restaking actually flows.

LAYER 3 - APPLICATION
AVS Layer (Actively Validated Services)
EigenDA, Hyperlane, Lagrange, AltLayer, Witness Chain, ARPA, Brevis, Espresso. Each AVS defines its own validation tasks and slashing conditions.
LAYER 2 - RESTAKING
EigenLayer Contracts
StrategyManager, EigenPodManager, DelegationManager, Slasher. Coordinates restakers, operators, and AVS opt-ins.
LAYER 1 - BASE
Ethereum Mainnet
35M+ ETH staked by beacon chain validators. Settlement layer for consensus, slashing finality, and ETH transfers.
Capital flows UP. Slashing decisions flow DOWN.

At the base is Ethereum itself. Restakers either run their own validator and point their withdrawal credentials at an EigenPod, or they deposit liquid staking tokens like stETH or rETH into EigenLayer strategies. The middle layer is the set of EigenLayer smart contracts, which include the StrategyManager (handles token deposits), the EigenPodManager (handles native ETH restaking), the DelegationManager (assigns restaked capital to operators), and the Slasher (enforces slashing conditions). The top layer is the AVS registry, where each AVS publishes its own validation logic and the operators register to serve it.

A restaker chooses an operator. An operator chooses which AVSs to validate. An AVS chooses which operators to accept. The result is a flexible market where every party retains opt-in control, but the underlying collateral is the same Ethereum stake.

Restaking Modes: Native vs LST vs LRT

There are three different ways to participate in EigenLayer, and they have meaningfully different risk and reward profiles. This is one of the most misunderstood parts of the protocol, so it is worth spending time on.

NATIVE RESTAKING
32 ETH Validator

Run your own Ethereum validator. Point withdrawal credentials to an EigenPod. Your full validator balance is restaked.

Pros: Highest yield, no LST risk
Cons: 32 ETH required, operational
Asset: Native ETH via EigenPod
LST RESTAKING
Deposit stETH, rETH

Deposit liquid staking tokens like Lido stETH, Rocket Pool rETH, or Coinbase cbETH into EigenLayer strategies.

Pros: No 32 ETH minimum, easy
Cons: LST depeg risk + Ethereum slashing
Asset: stETH, rETH, cbETH, sfrxETH
LRT (LIQUID RESTAKING)
Deposit via eETH, ezETH

Use a wrapper protocol that holds restaked ETH for you and issues a liquid token you can trade or use as collateral.

Pros: Liquid, composable, points farming
Cons: Triple layer of smart contract risk
Asset: eETH, ezETH, rsETH, pufETH

Native restaking is the cleanest version. You run your own validator with 32 ETH, then you deploy an EigenPod contract and set it as your validator's withdrawal address. Your validator continues to earn standard Ethereum consensus rewards. The EigenPod tracks your effective restaked balance, and you can delegate that balance to an operator who validates AVSs. This mode is preferred for sophisticated stakers because it avoids the depeg risk of liquid staking derivatives, but it requires running validator infrastructure.

LST restaking lets you deposit existing liquid staking tokens such as Lido's stETH, Rocket Pool's rETH, Coinbase's cbETH, or Frax's sfrxETH directly into EigenLayer strategies. You do not need to run a validator and you do not need 32 ETH. The trade-off is that you carry the smart contract and validator risk of the underlying LST protocol in addition to EigenLayer's risk. If you want a refresher on how these tokens work, see our guide to liquid staking.

LRTs, or Liquid Restaking Tokens, are a third layer built on top of EigenLayer. Protocols like EtherFi, Renzo, KelpDAO, and Puffer accept ETH deposits, restake them on EigenLayer on your behalf, and give you a liquid token representing your share. You can sell that token, use it as collateral on Aave or Morpho, or pair it in a Uniswap pool. LRTs were the dominant entry path in 2024 and 2025 because they removed every friction: no validator, no 32 ETH, no withdrawal queues. The cost is stacking another layer of smart contract risk on top of EigenLayer and on top of the underlying LST.

What Is an AVS (Actively Validated Service)

An Actively Validated Service is any system that needs decentralized validation and is willing to pay operators for it. The defining feature of an AVS is that it has its own consensus or attestation logic that is separate from Ethereum's, but it borrows Ethereum's economic security through EigenLayer.

Concretely, an AVS deploys a service manager contract that does three things. It defines the validation tasks the operators must perform. It defines the slashing conditions that punish operators who misbehave. And it defines how operators are paid for their work, usually in the AVS's own token or in ETH. Operators register with the AVS through the EigenLayer contracts, run the AVS-specific software, and submit signed attestations or proofs that prove they did the work correctly.

This design is deliberately generic. An AVS can be a data availability network, a cross-chain bridge committee, a zero-knowledge proof coprocessor, a decentralized sequencer, an oracle network, or any other piece of infrastructure that benefits from a large, well-capitalized validator set. The only requirement is that the validation work can be expressed as something operators can do and something the smart contracts can verify or arbitrate on.

Major AVSs in 2026

By mid-2026, the AVS ecosystem has matured well beyond the original launch partners. There are more than fifty live AVSs on EigenLayer mainnet, and another hundred or so in testnet or pre-launch states. Here is the taxonomy by service category.

DATA AVAILABILITY
EigenDA

The flagship AVS, built by the EigenLabs team. Stores blob data for rollups at a fraction of Ethereum 4844 cost. Direct competitor to Celestia.

Used by: Mantle, Polygon CDK, Arbitrum Orbit, Cyber, Treasure
BRIDGES
Hyperlane

Permissionless interchain messaging where each chain picks its own security model. Uses EigenLayer operators as one option for the Interchain Security Module.

Also: Omni Network, LayerZero DVNs
COPROCESSORS / ZK
Lagrange

Verifiable database and zk coprocessor. Operators run heavy computation off-chain and submit proofs verified on Ethereum.

Also: Brevis, Aligned Layer, RiscZero Bonsai
ROLLUP SERVICES
AltLayer

Restaked rollup framework. Operators provide decentralized sequencing, fast finality, and verification for ephemeral and persistent rollups.

Also: Espresso, Witness Chain (proof of location)
ORACLES / MPC
ARPA Network

Threshold MPC and verifiable randomness as a service. Restaked operators run MPC nodes for distributed key generation.

Also: eOracle, Chainbase, Predicate
AI / DATA
Ritual + Hyperbolic

Decentralized AI inference networks. Operators run model nodes and produce verifiable outputs for on-chain consumers.

Also: Inference Labs, Allora, Bagel

The big winner among AVSs has been EigenDA. As of 2026 it processes more than ten megabytes per second of blob data, has integrations with over a dozen rollup stacks, and is the cheapest production-grade DA solution outside of Ethereum 4844 itself. Hyperlane and AltLayer have also seen significant adoption, with Hyperlane in particular benefitting from the cross-chain explosion that followed the rise of modular blockchains.

EIGEN Token: Programmatic Slashing and Governance

The EIGEN token launched in October 2024 after a long, contentious airdrop process. The total supply is 1.67 billion EIGEN, and the initial distribution allocated approximately 15% to community airdrops, 15% to community initiatives and ecosystem development, 30% to investors, and 30% to EigenLabs and early contributors, with the remainder held in the EigenFoundation treasury.

The token has two distinct functions. The first is programmatic slashing. EIGEN itself can be staked on EigenLayer (just like ETH or LSTs) and used to secure AVSs. Crucially, EIGEN supports what the protocol calls intersubjective slashing, where the EIGEN community votes off-chain on disputed events that cannot be objectively verified by smart contracts. This is a deliberate design choice. Some types of misbehavior cannot be detected by code alone, so EigenLayer uses the EIGEN token as a social consensus layer to slash bad actors when the wider community agrees they cheated.

The second function is governance. EIGEN holders vote on protocol parameters, treasury allocations, and slashing disputes. The token was non-transferable at launch and only became transferable in October 2024 after a governance vote. Since then, EIGEN has traded between three and seven dollars depending on market conditions, with a fully diluted valuation in the multi-billion range.

The airdrop history is worth noting because it set the tone for the whole restaking meta. Season 1 of the EigenLayer points program ran from mid-2023 to April 2024, distributing points to restakers based on time-weighted ETH deposits. Season 2 ran through 2024 with similar mechanics. The token launch allocated 90 EIGEN to wallets that crossed a points threshold, with additional bonuses for early participants. Many early restakers received airdrops worth tens of thousands of dollars, which is what drove the explosive growth of the protocol in late 2023 and early 2024.

Liquid Restaking Tokens (LRTs)

Liquid restaking tokens are the consumer-facing layer of the EigenLayer ecosystem. They abstract away the complexity of choosing an operator, picking AVSs, and managing withdrawal queues. You deposit ETH, you receive a token representing your share of the LRT pool, and the protocol handles everything underneath. Four LRTs dominate the market in 2026, each with a slightly different approach.

Liquid restaking tokens comparison chart showing TVL of EtherFi eETH, Renzo ezETH, KelpDAO rsETH, and Puffer pufETH
Major LRT protocols ranked by TVL in 2026.

EtherFi (eETH and weETH) is the largest LRT by total value locked. EtherFi uses a non-custodial design where users delegate stake but retain ownership of their validator node keys, which is unique in the LRT space. The eETH token rebases (your balance grows over time as rewards accrue), while weETH is the wrapped version with a fixed supply and increasing exchange rate. EtherFi has dedicated AVS selection logic and runs its own delegation strategy.

Renzo (ezETH) is a non-rebasing LRT where the token quantity stays constant but its ETH-denominated value increases. Renzo has aggressive cross-chain distribution, with native ezETH on Arbitrum, Linea, Mode, Blast, BNB Chain, and several other networks. The protocol uses LayerZero's OFT standard for cross-chain transfers. Renzo's main differentiation has been ezPoints, its native incentive program that layers on top of EigenLayer points.

KelpDAO (rsETH) built on Stader's infrastructure and focuses on a more conservative AVS selection process. Kelp introduced an explicit "node delegator" architecture where the protocol allocates rsETH across multiple operators to diversify risk. Kelp also operates on Arbitrum, Optimism, Linea, and ZK Sync Era.

Puffer Finance (pufETH) is the most technically distinct LRT. Puffer was built to be MEV-resistant and to support what it calls anti-slashing technology, where validators run with secure enclaves that make certain slashing events practically impossible. Puffer also lowers the minimum stake for running a Puffer validator node from 32 ETH to roughly 1 ETH, opening solo restaking to smaller operators.

Beyond these four, there are dozens of smaller LRTs, restaked stablecoin protocols, and niche derivatives. The general rule is: the more layers of wrapping between you and the underlying ETH, the higher the smart contract risk and the higher the potential yield from points and incentives. There is no free lunch.

The Operator Layer

Operators are the workhorses of EigenLayer. They are the entities that actually run the AVS-specific software, sign attestations, produce proofs, and earn rewards. Without operators, restakers and AVSs cannot connect.

To become an operator, an entity registers with the EigenLayer DelegationManager contract. The registration is permissionless, but operators are expected to publish a metadata profile that includes their name, social handles, infrastructure setup, and which AVSs they support. Restakers can then delegate their restaked balance to an operator, and the operator can use the combined stake to register for one or more AVSs.

The economics here are interesting. An operator does not need its own capital. It only needs operational competence and the trust of restakers. In exchange for running infrastructure, the operator collects a fee from the rewards generated by the AVSs it serves. Typical operator fees in 2026 range from 5% to 15% of the gross rewards, depending on operator reputation and AVS demand.

Notable professional operator services in 2026 include P2P.org, Figment, Luganodes, Chorus One, Galaxy Digital, Pier Two, and Kiln. Each of these companies runs multiple AVSs across dozens of operator slots, and several have proprietary monitoring stacks that detect AVS slashing risk in real time. Some LRT protocols also run their own white-label operators rather than delegate to third parties.

Slashing Risk: Why Restaking Is Not Free Yield

The biggest misconception about restaking is that it offers free additional yield. It does not. Every AVS you opt into adds an additional slashing condition that your collateral is exposed to. The total risk is the sum of all slashing conditions across all AVSs your operator validates.

CORRELATED SLASHING: THE MATH

Imagine an operator validates 10 AVSs, each with a 5% slashing condition for downtime. If the operator's infrastructure has a single point of failure (one data center, one cloud provider, one shared key), a single outage could trigger ALL ten slashing events at once.

Your restaked ETH is then exposed to up to 50% slashing from one correlated event. EigenLayer caps total slashable amount at 100% of restake, so the cap is binding, but the practical risk is real.

This is why operator diversity and AVS due diligence matter. Yield without due diligence is just leverage in disguise.

EigenLayer's slashing system became fully active during 2025 with the deployment of the AVS slashing primitives. Before that, slashing was effectively dormant and the protocol was running in "trust the operator" mode. Now, AVSs can register slashing conditions that programmatically reduce an operator's restaked balance, and through the operator, the balance of every delegator.

The risks fall into several categories. Objective slashing is triggered by code: double-signing on a sequencer, invalid attestations, downtime below a threshold. Intersubjective slashing is triggered by community vote using the EIGEN token, for events that are clear to humans but not to smart contracts (a bridge committee colluding to censor a transaction, for example). Operator misconfiguration is a softer risk where the operator opts in to too many AVSs, increasing correlated slashing exposure. And capital flight is the systemic risk that if a major slashing event occurs, restakers may rush to withdraw simultaneously, creating a liquidity crisis across LRT tokens.

EigenLayer vs Symbiotic vs Karak

EigenLayer was first, but it is no longer the only restaking protocol. Two serious competitors have emerged: Symbiotic, backed by the Lido and Paradigm camp, and Karak, which has positioned itself as the multi-asset alternative. The three protocols have different architectural choices that matter for both restakers and AVSs.

EigenLayer is the most established. It has the largest TVL, the most AVSs, and the most mature operator ecosystem. Its strategy framework is somewhat rigid: each strategy contract handles one asset type, and adding new assets requires governance approval. The main pitch is depth: more capital, more AVSs, more battle-tested infrastructure.

Symbiotic launched in mid-2024 with a permissionless design. Any ERC-20 token can be used as restaked collateral, and any project can build a network on top without going through a centralized approval process. Symbiotic emphasizes modularity: every component (vault, operator, network, resolver, slasher) is its own contract, and they can be mixed and matched. The Symbiotic ecosystem includes large LRTs like Mellow and significant networks like Hyperlane and Ethena (for some functions).

Karak is more focused on universal restaking. It accepts not just ETH and LSTs but also stablecoins, BTC variants like LBTC, and other assets. Karak's "DSS" (Distributed Secure Services) concept is its equivalent of AVSs. Karak also runs its own Layer 2, called K2, which is settled by restaked operators. Adoption has been smaller than EigenLayer or Symbiotic but the asset flexibility appeals to certain DeFi protocols.

In practice, most major AVSs in 2026 have chosen to support multiple restaking protocols rather than commit exclusively to one. EigenDA, Hyperlane, and Lagrange are present on both EigenLayer and Symbiotic. The protocols are no longer competing for exclusivity; they are competing for the deepest capital pool and the most reliable operators.

Points and Airdrop History: The Meta Game

You cannot tell the EigenLayer story without telling the points story. The points program was the single biggest growth lever in the protocol's history, and it created a template that almost every restaking, LRT, and rollup project has since copied.

EigenLayer's Season 1 points started in mid-2023. The mechanic was simple: 1 ETH restaked for 1 hour equals 1 point. Points were tracked off-chain by EigenLabs, displayed in a leaderboard, and rumored to convert into a future airdrop. Users had no guarantee the airdrop would happen and no formal contract about the conversion rate, but the speculation was enough to drive billions of dollars in deposits.

LRT protocols added a second layer. EtherFi gave users EtherFi points on top of EigenLayer points. Renzo did the same with ezPoints. Pendle Finance, a yield trading protocol, then added a third layer where you could speculate on the future value of these points by trading YT tokens. By early 2024, sophisticated DeFi users were running positions that earned five or six different point streams simultaneously, a strategy nicknamed "points farming" or "the points meta."

The Season 1 airdrop in October 2024 distributed approximately 90 EIGEN per qualifying wallet, with larger allocations for top-ranked wallets. EtherFi, Renzo, Puffer, and other LRT protocols ran their own airdrops in parallel. For early participants who farmed efficiently, total airdrop value reached six figures. For latecomers, the rewards were much smaller, which set the stage for points fatigue in mid-2025.

How to Restake on EigenLayer Step-by-Step

If you want to actually restake in 2026, here is the practical workflow. We will cover the LST path because it is the most accessible, but we will note where native restaking diverges.

STEP 1 - HOLD ELIGIBLE ASSETS
Get stETH (Lido), rETH (Rocket Pool), cbETH, sfrxETH, or wBETH in your wallet. Or hold 32 ETH if going native restaking.
STEP 2 - VISIT APP.EIGENLAYER.XYZ
Connect your wallet, accept the terms of service, and review the deposit caps for each strategy. Cap status is live on the dashboard.
STEP 3 - DEPOSIT INTO A STRATEGY
Approve the StrategyManager contract and deposit your LSTs. You will receive an internal shares balance, not a token. Withdrawals have a 7-day delay.
STEP 4 - DELEGATE TO AN OPERATOR
Pick an operator from the registry. Check which AVSs they validate, their fee, and their slashing history. Delegate your shares.
STEP 5 - EARN AVS REWARDS
Rewards from each AVS your operator validates accrue to your address. Claim them via the rewards portal. You can re-delegate or withdraw at any time (subject to the 7-day cooldown).

If you prefer the LRT path, the workflow is even simpler. Visit EtherFi, Renzo, Kelp, or Puffer, deposit ETH or an LST, and receive the LRT token. The protocol handles strategy selection, operator delegation, and rewards claims on your behalf. The trade-off is that you give up control over which AVSs your stake secures.

For native restaking, you must first deploy an EigenPod through the EigenPodManager contract. Then you set the EigenPod address as the withdrawal credential for your Ethereum validator. The validator continues to earn beacon chain rewards normally, and your restaked balance is tracked through the EigenPod contract. This is technically the lowest-fee path because there is no LST or LRT intermediary, but it requires running your own validator with all the associated operational overhead.

Risks: The Honest Take

EigenLayer slashing risk diagram showing correlated slashing across multiple AVS services
Slashing risk visualization: how a single operator failure can cascade across multiple AVSs.

Restaking is not safe yield. It is a leveraged bet on Ethereum infrastructure with several distinct risk vectors that compound. Anyone doing more than a few percent of their portfolio in restaked positions should understand the following:

Correlated slashing. If an operator validates many AVSs and has a shared point of failure, a single event can trigger slashing across all of them. The math above assumed 5% per AVS over 10 AVSs equals 50%, but in practice the slashing curves are not always linear and the cap behavior depends on which event happens first. Diversification across operators is the only effective mitigation.

AVS quality. Not every AVS is well-designed. A new AVS launched in a hurry may have bugs in its slashing conditions, may have poor offchain detection logic, or may be susceptible to false-positive slashing events that punish honest operators. Restakers who opt into low-quality AVSs are taking unpriced risk.

Operator collusion. If a small set of operators dominate an AVS's stake, they can collude to cheat the AVS. EigenLayer mitigates this by requiring stake decentralization for some AVSs, but the property is not enforced uniformly.

LRT depeg. If a major slashing event hits an LRT's underlying operators, the LRT token will trade below ETH parity. This has already happened in mild forms during stETH market dislocations in 2022 and 2024. A major LRT depeg could trigger a cascade of liquidations across DeFi.

Capital flight. Restaking ties up huge amounts of ETH. If restaking yields fall below alternatives (treasury bonds, native staking, AAVE lending), capital can leave the protocol quickly. EigenLayer has a 7-day withdrawal queue from the strategies, plus the LST or beacon chain withdrawal delay, so the system can absorb some flight but not a panic.

Smart contract risk. EigenLayer's contracts have been audited by multiple firms but the surface area is enormous: StrategyManager, DelegationManager, EigenPodManager, Slasher, plus the per-AVS contracts that the EigenLabs team does not control. A single critical bug anywhere in this stack can be catastrophic.

Frequently Asked Questions

What is the difference between staking and restaking?

Staking is locking ETH to secure Ethereum consensus and earn the base validator yield, currently around 3% per year. Restaking is the additional step of taking already-staked ETH (or LSTs that represent staked ETH) and using it to secure additional services through EigenLayer or a competitor. You earn the base ETH yield plus AVS rewards, but you take on additional slashing risk. For more on the basics, see our staking pool guide.

Is EigenLayer safe?

EigenLayer's core contracts have been audited multiple times and have not been exploited. However, "safe" is the wrong frame. EigenLayer is a security primitive that lets you take on additional risk in exchange for additional yield. Whether that trade-off is appropriate depends on how much of your portfolio you allocate, which AVSs you opt into through your operator, and whether you understand the slashing conditions. Using LRTs adds further smart contract risk on top.

How much can you earn from restaking?

In 2026, base Ethereum staking yields around 3% APR. Restaking adds an estimated 1% to 4% on top, depending on which AVSs your operator validates and how the rewards are structured. So combined yields are typically in the 4% to 7% APR range. Some LRTs advertise higher yields by layering points programs or DeFi composability on top, but the base AVS rewards alone rarely exceed 4% above native staking.

What is an AVS?

AVS stands for Actively Validated Service. It is any protocol that uses EigenLayer operators to perform validation work, such as data availability, cross-chain message attestation, zero-knowledge proof generation, or oracle reporting. Each AVS defines its own task and slashing conditions, and operators choose which AVSs to register for. EigenDA is the most well-known AVS but there are dozens of others live in 2026.

Do I need 32 ETH to restake?

No. The 32 ETH minimum only applies to native restaking, where you run your own Ethereum validator. For LST restaking and LRT restaking, you can deposit any amount, often starting from less than 0.01 ETH. The LRT path through EtherFi, Renzo, Kelp, or Puffer is the most accessible for retail participants because there are no minimums and no operational requirements.

What is the EIGEN token?

EIGEN is the native governance and intersubjective slashing token of EigenLayer. It launched in October 2024 with a total supply of 1.67 billion. Holders vote on protocol parameters and on disputed slashing events that cannot be objectively verified by smart contracts. EIGEN itself can also be restaked alongside ETH to secure AVSs. It is not a yield-bearing token by default, but it can earn fees when used as restaked collateral.

Conclusion

EigenLayer turned an academic idea (use Ethereum's validator set to secure other services) into the largest single protocol launch of 2024 and a permanent piece of the crypto infrastructure stack. By 2026, restaking is no longer a narrative; it is a category. EigenLayer competes with Symbiotic and Karak. AVSs span data availability, bridges, coprocessors, and AI inference. LRTs are a multi-billion-dollar segment of DeFi, and the operator layer has matured into a real professional industry.

For a regular user, the key takeaway is that restaking is not a magic free yield. It is a way to take Ethereum's economic security and rent it out to other services, in exchange for additional rewards and additional slashing risk. Done carefully, with operator diversification and AVS due diligence, it can be a meaningful enhancement to your staking returns. Done carelessly, especially through stacked LRT positions in DeFi protocols, it is a way to accumulate hidden leverage that can blow up in a correlated slashing event.

Whether or not you decide to participate, understanding EigenLayer is now part of understanding Ethereum. The protocol has fundamentally changed how new infrastructure launches, how validators monetize their stake, and how applications source security. Restaking is not going away. It is just becoming normal, like proof of stake itself became normal a few years ago. The early excess yields have faded, but the underlying mechanism is now a permanent fixture in crypto's design space.