For ETH and SOL holders trying to earn passive income, DeFi users comparing yield strategies, or investors deciding whether maintaining liquidity is worth taking additional smart contract risk, those differences matter. A 3% network-derived yield and a 20% incentive-heavy yield aren't economically equivalent. The source of the return, the number of protocols involved, liquidity conditions, token-price exposure and possible losses all need to be considered before choosing a staking strategy.
This 2026 comparison focuses on how the seven protocols actually generate rewards, what users receive after staking, where additional yield comes from, and which risks can sit behind the headline yield.
Liquid staking lets users earn network staking rewards while receiving liquid staking tokens such as stETH, rETH or JitoSOL that can remain usable elsewhere in DeFi.
Restaking can reuse staked assets to secure additional services, potentially generating additional rewards but adding another layer of protocol and slashing risk.
Lido and Rocket Pool focus primarily on Ethereum liquid staking, while Jito combines Solana staking with MEV-derived rewards.
Ether.fi and EigenLayer extend Ethereum staking into restaking, while Pendle provides a different model built around trading principal and future yield.
Babylon enables native, self-custodial Bitcoin staking without requiring BTC to be wrapped or bridged to another blockchain.
The highest advertised APY isn't automatically the best return. Smart contract vulnerabilities, liquidity risk, token incentives, market volatility and additional protocol dependencies can materially change the outcome.
DeFi staking broadly describes using crypto assets in decentralized protocols to earn rewards. The term covers several mechanisms that are often grouped together even though their economics differ.
Traditional Proof-of-Stake staking involves locking or delegating a network's native asset so validators can participate in validating transactions and maintaining network security. Staking rewards may come from network issuance, transaction fees and, depending on the network and validator setup, other sources.
Liquid staking changes what happens to the user's liquidity. Instead of leaving staked coins economically inactive until withdrawal, users receive liquid staking tokens representing their position. An ETH user might stake ETH and receive stETH or rETH. Those tokens can then be transferred, traded, supplied to lending markets or placed into liquidity pools while the underlying position continues generating staking rewards.
This is why liquid staking and restaking have become important parts of the DeFi ecosystem: the same underlying economic position can remain productive rather than sitting completely isolated.
Liquid staking doesn't eliminate risk. It changes it. The user may avoid some of the liquidity constraints associated with traditional staking but now depends on smart contracts, validator management, the liquid staking derivative's market liquidity and, in some cases, additional DeFi protocols.
Restaking adds another layer. Staked ETH or liquid staking tokens can be committed to additional services requiring economic security. EigenLayer popularized this structure on Ethereum, allowing restaked collateral to support Actively Validated Services, or AVSs. That can generate additional rewards, but the collateral is also exposed to additional conditions.
Then there are strategies that aren't pure staking at all. Liquidity provision involves depositing assets into decentralized exchange pools and earning swap fees or incentives. Yield farming may combine lending, liquidity mining, governance incentives and staking activities. Yield farming can therefore show much higher headline yields than basic staking, but the additional return usually comes with additional risk.
| Platform | Main Model | Main Asset/Token | What Makes It Different | Main Risk Layer |
|---|---|---|---|---|
| Lido | Liquid staking | ETH / stETH | Deep stETH DeFi integration | Smart contract, LST liquidity |
| Rocket Pool | Decentralized liquid staking | ETH / rETH | Distributed node-operator model | Smart contract, validator |
| Jito | Solana liquid staking + MEV | SOL / JitoSOL | Staking rewards plus MEV | Solana, MEV, LST liquidity |
| Ether.fi | Liquid restaking | ETH / eETH | Non-custodial restaking model | Restaking and protocol stacking |
| EigenLayer | Restaking | ETH, LSTs and supported assets | Shared economic security | Slashing, AVS, smart contracts |
| Pendle | Yield tokenization | PT / YT | Separates principal and future yield | Rate, maturity and market risk |
| Babylon | Native Bitcoin staking | BTC | Self-custodial BTC staking | Protocol, slashing and BTC lock-up |
The table also shows why ranking the best DeFi staking platforms purely by APY is misleading. These aren't seven versions of the same product.
Lido remains one of the central names in Ethereum liquid staking. Users stake ETH and receive stETH, a liquid token representing their staked position and accumulated rewards. Lido's current interface describes stETH as usable in secondary markets, lending and restaking, which is the main advantage of the liquid staking model.
Instead of choosing between earning Ethereum staking rewards and maintaining liquidity, users can do both. A stETH holder may keep the token in a wallet, use it as collateral in a lending market, or participate in other DeFi protocols.
That improves capital efficiency, but stacking strategies also stacks risks. Putting stETH into another smart contract means the position is no longer exposed only to Ethereum staking and Lido. It can also depend on the lending market, decentralized exchange or restaking protocol holding the token.

Best suited to: users who want straightforward ETH liquid staking and broad DeFi composability.
Main tradeoff: the convenience and liquidity of stETH introduce LST and smart contract dependencies that aren't present when independently running an Ethereum validator.
Users comparing this model with a centralized route can also look at ETH staking on Gate.com. In that structure, staked ETH generates GTETH, while custody and platform exposure replace the self-custody and smart-contract profile associated with decentralized protocols. The comparison is useful precisely because centralized platforms and DeFi protocols carry different forms of counterparty risk.
Rocket Pool also supports Ethereum liquid staking, but its design places more emphasis on a distributed network of node operators.
Users stake ETH and receive rETH, whose value grows relative to ETH as staking rewards accumulate. Rocket Pool states that rETH can also be traded, supplied as collateral and used for liquidity provision in DeFi.
For users specifically concerned with reducing single-entity control in staking infrastructure, this distinction can matter. Rocket Pool's staking model combines liquid staking for ordinary token holders with node staking for participants willing to operate validator infrastructure.
As with stETH, however, rETH being liquid doesn't mean it has the same liquidity characteristics as ETH itself. During stressed markets, the secondary-market price of a liquid staking derivative can diverge from the value users expect from eventual protocol redemption.
Best suited to: ETH holders who value a more distributed node-operator architecture.
Main tradeoff: additional protocol mechanics and LST market risk remain part of the staking experience.
Jito takes the liquid staking concept to Solana. Users deposit SOL and receive JitoSOL, which accrues both ordinary Solana staking rewards and revenue associated with Maximum Extractable Value, or MEV.
MEV is value produced from the ordering and inclusion of transactions. Jito's infrastructure allows searchers to bid for transaction-ordering opportunities, with part of that economic value flowing through the validator and staking system. Jito's documentation says JitoSOL accumulates both staking and MEV rewards through its exchange rate.
Solana staking rewards are generally processed around epoch boundaries. Jito documentation describes an epoch as approximately two days, with normal staking rewards incorporated into JitoSOL's value rather than distributed as separate token payments.
That makes Jito useful for understanding why Ethereum and Solana staking have different risk profiles. The underlying chains have different validator systems, reward mechanics and liquidity ecosystems, while Jito introduces MEV as another income stream.
How Jito combines SOL staking and MEV also shows that the apparent yield isn't generated by a single source.

Best suited to: SOL holders seeking liquid staking with exposure to MEV-derived rewards.
Main tradeoff: MEV revenue fluctuates with network activity, so past reward levels shouldn't be treated as fixed future APY.
A user comparing JitoSOL with a centralized liquid SOL position could also examine GTSOL on Gate.com. GTSOL represents SOL placed into Gate's staking structure and can be used in several platform functions while accruing on-chain staking rewards. That comparison helps separate protocol-level Solana risk from the additional custody model of a centralized exchange.
Ether.fi moves beyond basic ETH staking into liquid restaking. Ethereum.org currently describes ether.fi as a non-custodial Ethereum restaking platform where users can earn rewards while retaining control of their assets.
The important idea is reuse. A normal liquid staking token represents ETH already participating in Ethereum staking. Liquid restaking takes that economic position and connects it to additional services, creating another potential reward layer.
That can make a staking strategy more productive, but it also means more things have to work correctly. Ethereum staking must function, the liquid restaking protocol must function, relevant smart contracts must remain secure, and any underlying restaking services must operate within their rules.
This is the central tradeoff of restaking: additional yield can come from additional responsibilities and additional failure points.

Best suited to: users comfortable with DeFi who want liquid exposure to Ethereum restaking.
Main tradeoff: higher composability and potential yield generation come with greater smart contract and interconnected-protocol risk.
EigenLayer is less like a conventional staking pool and more like infrastructure for a restaking economy.
Restakers can commit ETH or supported staking assets so operators can provide security to additional services. The economic security already associated with staked assets is therefore reused rather than every new service having to bootstrap a completely independent validator set.
Gate Learn's EigenLayer overview describes this shared-security model and the roles of restakers, operators and Actively Validated Services.
The opportunity is additional compensation. The catch is that restaking can create new slashing conditions and dependencies beyond ordinary ETH staking. A 2026 study of liquid restaking also highlights the interconnected risk that can arise when restaked tokens spread through multiple DeFi services and bridges.
Gauge-style or service-allocation staking follows a related incentive logic: users or governance participants may direct staked liquidity toward particular services or pools and receive rewards connected to those allocations. Those rewards aren't automatically equivalent to base network staking rewards; their sustainability depends on the source of incentives.

Best suited to: experienced ETH holders interested in shared security and restaking.
Main tradeoff: every additional service secured by the stake can introduce another source of operational, smart contract or slashing risk.
Pendle belongs in a list of top DeFi staking platforms because it has become important to staking-based yield strategies, although Pendle itself isn't simply a validator staking service.
Pendle tokenizes yield-bearing assets by splitting them into Principal Tokens (PT) and Yield Tokens (YT). PT represents the principal component, while YT represents entitlement to future yield until maturity.
That makes possible strategies that conventional staking can't provide. Someone who wants more predictable exposure can purchase PT at a discount and hold it toward maturity. Someone expecting future yields to rise can instead buy YT, gaining leveraged exposure to changes in the underlying yield.
The tradeoff is obvious once the mechanism is understood. Yield speculation isn't the same as earning normal validator rewards. YT loses its remaining time value as maturity approaches, and changes in the underlying APY can materially affect its return.
Pendle can therefore display striking headline yields during periods of strong incentives or demand. Those figures shouldn't be interpreted as guaranteed staking rates.

Best suited to: experienced DeFi users managing or trading future yield.
Main tradeoff: rate changes, token pricing, maturity mechanics and underlying protocol risk make Pendle more complex than simply staking ETH or SOL.
Bitcoin isn't a Proof-of-Stake blockchain, so BTC staking needs a very different mechanism from ETH staking or Solana staking.
Babylon enables BTC holders to lock native Bitcoin through Bitcoin-based staking contracts and use it as economic security for participating networks. Crucially, the model doesn't require users to wrap BTC or bridge it onto Ethereum first. Babylon documentation describes the system as native, self-custodial Bitcoin staking with protocol-enforced slashing conditions.
This gives BTC holders a potential income stream without transforming their Bitcoin into a wrapped representation on another blockchain.
Self-custodial doesn't mean risk-free. Staked BTC is being committed as security collateral. Slashing conditions, unbonding mechanics, implementation risk and the security of the systems using that collateral still matter.

Best suited to: BTC holders interested in native Bitcoin staking without conventional wrapping or bridging.
Main tradeoff: Babylon introduces staking-specific protocol conditions to an asset whose native blockchain doesn't itself use Proof of Stake.
The source of yield matters more than the number displayed beside APY.
| Yield Source | Example | Main Risk |
|---|---|---|
| Network staking | ETH, SOL | Validator and token-price risk |
| Transaction fees | Ethereum validators | Network activity |
| MEV | Jito / validator infrastructure | Variable activity and infrastructure |
| Restaking services | EigenLayer, Ether.fi | Additional slashing and protocol risk |
| Governance incentives | DeFi protocols | Token-emission sustainability |
| Liquidity provision | DEX pools | Impermanent loss and liquidity risk |
| Yield trading | Pendle | Rate and maturity risk |
| Lending/credit | Maple-style markets | Borrower and credit risk |
This distinction also prevents a common mistake: calling every DeFi yield opportunity "staking."
For example, Maple Finance's yield model is primarily credit-driven rather than Proof-of-Stake staking. Its documentation says yield is primarily generated through fixed-rate, over-collateralized institutional loans, supplemented by other strategies. That's fundamentally different from ETH staking rewards generated for helping secure Ethereum.
Some DeFi pools and incentive programs can advertise annualized yields above 20% for periods of time, particularly when additional token rewards or leveraged yield exposure are involved. That doesn't mean DeFi staking naturally produces 20% returns. The extra percentage points have to come from somewhere.

DeFi staking can be useful, but DeFi staking isn't risk-free.
Smart contract vulnerabilities are the clearest example. A protocol may be carefully audited and still contain undiscovered bugs. Audits reduce smart contract risk; they don't remove it. Recent DeFi incidents have continued to show that even older or deprecated contracts can remain attack surfaces.
Liquidity risk matters too. A liquid staking token can be tradable without always trading exactly at the economic value of the underlying staked asset. In stressed markets, users seeking immediate liquidity may face slippage or temporary price discounts.
Then there is market volatility. Earning 5% more ETH during a year doesn't prevent a loss in fiat terms if ETH itself falls much further. The same applies to SOL, BTC and governance tokens.
Restaking introduces another layer because staked assets may support several services simultaneously. More income streams can mean more smart contracts, more conditions and more pathways through which a problem can reach the position.
Centralized platforms have a different profile. They simplify the staking process, but users introduce custody and counterparty risk. A decentralized smart contract and a centralized exchange shouldn't be evaluated with an identical checklist.
Start with the source of the yield, not the advertised APY.
For someone who mainly wants ETH staking rewards while maintaining liquidity, Lido or Rocket Pool is easier to understand than a multi-layer restaking position. SOL holders looking for liquid staking plus MEV may find Jito more relevant. Ether.fi and EigenLayer fit users comfortable with the additional mechanics of restaking. Pendle is designed for yield management rather than passive staking alone, while Babylon addresses BTC holders.
Then ask what happens after staking. Do you receive a liquid staking token? Can it be redeemed directly? Does instant liquidity depend on a decentralized exchange? Are there flexible withdrawal options, or does the position require an unbonding period?
Check the reward composition as well. Network rewards, transaction fees and swap fees behave differently from governance incentives or additional tokens distributed temporarily to attract liquidity.
Finally, consider the number of dependencies. A simple staking position might rely on a blockchain and validator. A liquid staking strategy adds a protocol and derivative token. Lending that liquid staking token adds a lending market. Restaking or depositing it into a liquidity pool adds another layer again.
More yield doesn't come for free.
DeFi staking generally prioritizes on-chain transparency, self-custody and composability. Centralized exchanges usually prioritize convenience, simpler account management and reduced technical complexity.
A user who wants to start staking without managing a Web3 wallet can view the current assets and conditions on Gate.com's staking marketplace. Someone comparing ETH specifically can use Gate.com ETH staking as a practical centralized-platform reference while comparing its custody model with Lido or Rocket Pool.
Neither structure removes risk. They move risk to different places.
DeFi users take direct responsibility for wallets, approvals, smart contracts and transaction execution. Centralized users rely more heavily on the platform's custody, operations and redemption system. Risk tolerance should determine which tradeoff is acceptable rather than the headline yield alone.
The best DeFi staking platforms in 2026 aren't interchangeable. Lido is a straightforward choice for liquid ETH exposure, Rocket Pool emphasizes decentralized Ethereum staking infrastructure, and Jito combines Solana staking with MEV rewards. Ether.fi and EigenLayer extend staking into restaking, Pendle turns future yield itself into a tradable asset, and Babylon creates a native self-custodial route for Bitcoin staking.
Liquid staking can improve capital efficiency because users continue earning rewards while maintaining liquidity. Restaking can generate additional income by reusing staked assets. Liquidity provision, yield farming and lending can add still more income streams.
Each extra layer changes the risk as well.
A sensible staking strategy therefore balances expected rewards against smart contract risk, liquidity risk, credit risk where applicable, market volatility, counterparty exposure and the complexity of the position. The highest APY on the screen may be attractive, but understanding where that APY comes from is far more useful.
Lido, Rocket Pool, Jito, Ether.fi, EigenLayer, Pendle and Babylon represent seven important models across liquid staking, restaking, yield trading and native Bitcoin staking. The best choice depends on the asset being staked, desired liquidity and the user's risk tolerance.
Yes. Users can earn passive income from network staking rewards, transaction fees, MEV, restaking compensation and sometimes governance incentives. The amount isn't guaranteed, and both reward rates and the market value of the staked crypto assets can change.
Traditional staking commits assets to network validation, often reducing their immediate liquidity. Liquid staking issues a representative token such as stETH, rETH or JitoSOL, allowing users to keep economic exposure to staking rewards while using or trading the token elsewhere.
Not necessarily. Liquid staking typically has fewer strategy layers than complex yield farming, but it still carries smart contract, validator, derivative-token and liquidity risks. Yield farming may additionally expose users to liquidity pools, impermanent loss, governance-token incentives and several interconnected protocols.
No. High APYs can reflect temporary token incentives, leveraged yield exposure, liquidity mining or additional protocol risk. Comparing where the yield comes from is generally more meaningful than comparing the headline percentage alone.
Bitcoin doesn't use Proof of Stake, but protocols such as Babylon allow native BTC to be committed as economic security for other networks. Babylon's model keeps BTC on Bitcoin rather than requiring conventional wrapping or bridging, while introducing its own staking and slashing conditions.
Disclaimer
This information is provided for educational purposes only and does not constitute financial or investment advice. DeFi staking, liquid staking, restaking, lending and liquidity provision involve risks including smart contract exploits, slashing, liquidity shortages, market volatility and loss of principal. Reward rates change over time, and users should verify current protocol conditions before committing digital assets.





