Liquid Staking Tokens Explained: How LSTs Work, Top Protocols, and Risks
By Jorge Rodriguez — Yield Strategies
How liquid staking tokens work under the hood, including rebasing vs reward-bearing mechanics
Side-by-side comparison of major LSTs across Ethereum and Solana with real yield and TVL data
A risk framework for evaluating any LST protocol before committing capital
Introduction
Proof-of-stake networks secure hundreds of billions of dollars in value. Staking keeps these networks honest, but it comes with a painful tradeoff: your tokens get locked, and your capital sits idle while the rest of DeFi moves on without you. **Liquid staking tokens** solve this problem by giving you a tradable receipt for your staked position, one that keeps earning rewards while you put it to work elsewhere. Liquid staking has become one of the largest sectors in DeFi, with total value locked exceeding **$40 billion** across all chains according to DefiLlama. That number keeps growing because LSTs address a genuine need: capital efficiency. You can compare live LST yields across protocols using the [Lince Yield Tracker](https://yields.lince.finance/tracker), which aggregates data in real time. This guide breaks down how liquid staking tokens actually work, compares the major protocols on Ethereum and Solana, explains where yield comes from, maps the risk landscape, and shows you how to use LSTs effectively in your portfolio. We assume you already understand basic DeFi concepts like staking, lending, and liquidity provision.
What Are Liquid Staking Tokens?
**The Problem: Staked Assets Are Illiquid** **Proof-of-stake (PoS)** networks require participants to lock tokens as collateral to validate transactions. On Ethereum, solo validators must deposit 32 ETH, and withdrawals involve an **unbonding period** that can take days. On Solana, native staking locks your SOL with a specific **validator** for an entire epoch before you can unstake. This lockup creates a real opportunity cost. While your tokens secure the network, they cannot be used as collateral in lending protocols, provided as liquidity in AMM pools, or deployed in any other yield-generating strategy. For large holders, this means choosing between network security and capital efficiency. **The Solution: Tokenized Staking Positions** Liquid staking protocols accept your native tokens (ETH, SOL, or others), stake them with a diversified set of validators via a **stake pool**, and issue you a derivative token in return. This derivative, the liquid staking token, represents your claim on the staked assets plus any rewards they accumulate. LSTs are a core category of [yield-bearing assets](/blog/yield-strategies/yield-bearing-assets) in DeFi. The key insight is that LSTs are fungible and **composable**. You can trade them on DEXs, deposit them as collateral in lending protocols, provide liquidity in pools, or simply hold them and watch the yield accrue. The underlying tokens remain staked and securing the network the entire time.  **How LSTs Accrue Value** Not all LSTs work the same way. There are two dominant models for distributing staking rewards to holders. **Rebasing** tokens increase your wallet balance over time. **stETH** from Lido is the best-known example. If you hold 10 stETH today, tomorrow you might hold 10.0008 stETH as daily rewards get added. Your token count grows, but each token stays roughly pegged 1:1 to ETH. **Reward-bearing** tokens keep your balance fixed but increase in value relative to the base asset. **JitoSOL**, **mSOL**, and **rETH** all use this model. If you deposit 10 SOL into Jito and receive 9.52 JitoSOL, the exchange rate starts at roughly 1 JitoSOL = 1.05 SOL. As rewards accrue over months, that rate climbs to 1.06, 1.07, and beyond. You hold the same number of tokens, but each one is worth more SOL. Both models deliver the same economic outcome. The difference is purely mechanical, though it matters for DeFi integrations and tax treatment.
Liquid Staking vs Native Staking
The decision between native staking and liquid staking depends on your priorities. Here's how they stack up. | Factor | Native Staking | Liquid Staking | |--------|---------------|----------------| | Liquidity | Locked until unbonding completes | Tradable LST, exit anytime via DEX | | Minimum stake | Often high (32 ETH for solo validation) | Usually none or very low | | DeFi composability | None, tokens are locked | Full, use LST across protocols | | Smart contract risk | None beyond base chain | Yes, additional protocol layer | | Yield | Base staking APY only | Base APY plus DeFi opportunities | | Complexity | Low, straightforward | Medium, requires understanding derivatives | | Validator selection | You choose directly | Protocol distributes across set | Native staking is simpler and carries less smart contract risk. But liquid staking unlocks your capital for additional yield opportunities without sacrificing your staking rewards. For most DeFi-active users, LSTs offer a strictly better risk-adjusted return profile, as long as you understand and accept the additional smart contract layer.
Best Liquid Staking Tokens on Ethereum
Ethereum pioneered liquid staking, and its LST ecosystem remains the largest by **Total Value Locked (TVL)**. Three protocols dominate the landscape, each with distinct tradeoffs. **stETH from Lido** [Lido](https://lido.fi/) is the undisputed leader. With over **8.7 million ETH** staked (roughly 24% of all staked ETH), stETH is the most liquid and widely integrated LST in existence. It uses a rebasing model, so your balance increases daily. Lido distributes stake across 800+ node operators, though critics point out that governance remains relatively centralized through the LDO token. stETH is accepted as collateral on Aave, Maker, and dozens of other protocols. Its deep liquidity on Curve and Uniswap means you can exit large positions without significant slippage. The protocol charges a **10% fee** on staking rewards, split between node operators and the DAO treasury. **rETH from Rocket Pool** Rocket Pool takes the opposite approach to centralization. Anyone can run a Rocket Pool node with just 8 ETH (down from 16 after the Atlas upgrade), making it the most permissionless liquid staking protocol on Ethereum. rETH uses a reward-bearing model, so the token appreciates against ETH over time. The tradeoff is lower liquidity compared to stETH, and slightly lower APY due to the additional node operator commission structure. But for users who prioritize decentralization and censorship resistance, rETH is the strongest choice. **cbETH from Coinbase** Coinbase's cbETH serves the institutional market. It is issued by a regulated U.S. entity, which matters for funds and treasuries with compliance requirements. The reward-bearing model keeps accounting straightforward. However, cbETH is fully centralized, meaning Coinbase controls the validator set and could theoretically freeze tokens.  **Ethereum LST Comparison** | Token | Protocol | APY | TVL Estimate | Validators | Key Feature | |-------|----------|-----|-------------|------------|-------------| | stETH | Lido | ~3.0% | $22B+ | 800+ operators | Largest, deepest liquidity | | rETH | Rocket Pool | ~2.9% | $3B+ | Permissionless | Most decentralized | | cbETH | Coinbase | ~2.7% | $1B+ | Coinbase-managed | Institutional compliance | | swETH | Swell | ~3.1% | $500M+ | Curated set | Restaking-native | Ethereum LST yields hover around 3% because the network has a massive validator set (over 1 million validators), which dilutes rewards across participants. The real value proposition on Ethereum is not the base yield but the DeFi composability stacked on top.
Best Liquid Staking Tokens on Solana
Solana's liquid staking ecosystem has matured rapidly. Base staking yields on Solana run significantly higher than Ethereum (roughly 6-8% vs 3%), making Solana LSTs particularly attractive for yield-seeking capital. **[JitoSOL](/tracker/solana/jito/jitosol) from Jito** [Jito](https://www.jito.network/) operates the largest Solana LST by TVL, with over **14.3 million SOL** staked and **192,000+** holders. JitoSOL uses a reward-bearing model and distributes stake across 160+ validators. What sets Jito apart is **MEV (Maximal Extractable Value)** redistribution. Jito's block engine captures MEV tips from transaction ordering and passes a portion back to stakers, adding yield on top of base staking rewards. JitoSOL currently yields 5.9-8.1% APY, though yield compression has been a trend as more SOL flows in. The same MEV revenue gets split across a larger base, gradually reducing per-token yield. Despite this, JitoSOL remains the most liquid Solana LST with the deepest DeFi integrations. **[mSOL](/tracker/solana/marinade/msol) from Marinade** Marinade is the pioneer of Solana liquid staking. With 3.4 million SOL staked and 148,000 holders, mSOL has the longest track record in the ecosystem. The protocol distributes across 100+ validators and holds SOC 2 certification, a rare security credential in DeFi. mSOL currently delivers 6.1-8.1% APY and also offers a native staking option for users who want direct validator selection. **bSOL from BlazeStake** BlazeStake emphasizes decentralization above all else, distributing across 200+ validators. With roughly 1 million SOL staked, bSOL has a smaller TVL but offers the most distributed validator set among Solana LSTs. APY ranges from 6.0-7.9%, and the protocol has strong community governance through its SolBlaze DAO. **[INF](/tracker/solana/sanctum/sanctum) from Sanctum** Sanctum Infinity takes a novel approach as an LST-of-LSTs. INF holds a diversified basket of high-performing Solana LSTs and captures additional yield from swap fees in its unified Infinity pool. This design means INF consistently delivers the highest yields in the market, currently 7.1-8.5% APY. Sanctum also enables zero-slippage swaps between any supported LSTs, solving the fragmented liquidity problem. **JupSOL from Jupiter** JupSOL is the newest entrant, built on Sanctum infrastructure and backed by 100,000 SOL from the Jupiter team. It delivers 6.2-7.8% APY and benefits from deep integration with Jupiter's DEX aggregator. JupSOL is gaining market share quickly. You can track live APY data for all Solana LSTs on the [Lince LST Tracker](https://yields.lince.finance/tracker/solana/category/lst), which aggregates yields across JitoSOL, mSOL, bSOL, and more. {{tracker:LST:10:Live Solana LST Yields (Updated in Real Time)}}
Where LST Yield Comes From
LST yield comes from three layers, and knowing which ones apply tells you whether returns are sustainable or juiced. **Base Staking Rewards** Every PoS network pays validators (and their delegators) for securing the chain. These rewards come from network inflation and transaction fees. On Ethereum, base staking yields roughly 3% APY. On Solana, the higher inflation schedule and MEV environment push base yields to 6-7%. These rewards are protocol-level and about as reliable as any yield in crypto. **MEV Redistribution** This is where Solana LSTs get an edge. MEV refers to the profit validators can extract by reordering, inserting, or censoring transactions within a block. Jito's block engine formalizes this process and redistributes a portion of MEV tips to JitoSOL holders. Not all LSTs capture MEV, and the amount fluctuates with network activity and trading volume. **DeFi Composability Yield** The third layer comes from deploying your LST in DeFi protocols. You can deposit your LST as collateral in lending protocols like Kamino or Aave to borrow stablecoins, earning staking yield while accessing leverage. You can provide liquidity in LST/SOL or LST/ETH AMM pools to earn trading fees. Or you can enter more complex [delta-neutral strategies](/blog/yield-strategies/delta-neutral-strategies-defi) that amplify returns. This composability layer is what makes liquid staking fundamentally different from native staking. Your staked capital earns its base yield while simultaneously working in a second (or third) protocol. The compounding effect is real, but so is the compounding risk.
Risks of Liquid Staking Tokens
LSTs are not risk-free staking wrappers. They introduce several risk vectors that native staking does not carry. **Smart Contract Risk** Every LST protocol adds a layer of smart contract code between you and your staked assets. A bug or exploit in that code could affect all depositors simultaneously. Lido, Jito, and Marinade have undergone multiple audits and have operated without major incidents, but audits reduce risk rather than eliminate it. Newer or less battle-tested protocols carry higher smart contract risk. **Slashing Risk** If validators backing an LST misbehave (double-signing, excessive downtime), the network can confiscate a portion of their staked tokens. This is called **slashing**. LST protocols mitigate this by distributing across many validators, so a single slashing event has minimal impact. For context, Lido recently experienced a minor slashing incident in its Community Staking Module where total fines stayed under 1 ETH, negligible against billions in TVL.  **Depeg Risk** LSTs can temporarily trade below the value of their underlying assets during periods of market stress or liquidity crunches. The most notable example was the **stETH depeg** in June 2022, when stETH traded at a 5-6% discount to ETH amid the Three Arrows Capital and Celsius collapses. The critical point: a depeg does not mean permanent loss if the protocol remains solvent. stETH fully recovered because holders could eventually redeem 1:1 for ETH. But if you need to exit during a depeg, you are selling at a discount. This matters most for leveraged positions where a depeg can trigger liquidations. **Centralization Risk** Lido controls roughly 24% of all staked ETH. If any single liquid staking protocol exceeds **33%** of a network's stake, it gains the theoretical ability to influence consensus. This is not just a philosophical concern. It is a direct threat to network liveness and censorship resistance. The Ethereum community actively monitors and debates this concentration. **Liquidity Risk** Not all LSTs are created equal in terms of secondary market depth. JitoSOL and stETH enjoy deep liquidity across multiple DEXs. Smaller LSTs like bSOL or newer entrants may have thin order books, meaning large exits during market panic could require selling at a significant discount. Always check available liquidity before entering a large LST position.
How to Use LSTs Effectively
LSTs unlock multiple strategies beyond simple hold-and-earn. These are the main approaches, ordered from simplest to most complex. **Hold and Earn** The simplest strategy. Swap your SOL or ETH for an LST and hold it. Your position earns staking rewards automatically with no further action. This works particularly well for long-term holders who were going to keep their tokens anyway. **Collateral in Lending Protocols** Deposit your LST in lending protocols (Kamino, MarginFi on Solana; Aave, Maker on Ethereum) to borrow stablecoins. You continue earning staking yield on your LST while accessing borrowed capital for other opportunities. The effective yield is your staking APY minus your borrowing cost. If JitoSOL yields 7% and you borrow USDC at 4%, your net yield on the staked portion is roughly 3% plus you have freed stablecoins to deploy. **LP Strategies** Provide liquidity in LST/base-asset pools (JitoSOL/SOL, stETH/ETH). Since the two assets are highly correlated, [impermanent loss](/blog/risk-management/impermanent-loss-explained-math-solana-lp-strategies) is typically minimal. You earn trading fees on top of the staking yield embedded in your LST. These pools tend to offer lower but more stable returns than volatile-pair LPs. **Recursive Looping** The most aggressive approach. Stake SOL to receive JitoSOL. Deposit JitoSOL as collateral. Borrow SOL against it. Stake the borrowed SOL for more JitoSOL. Repeat. Each loop amplifies your exposure to the staking yield, but also amplifies your exposure to **depeg** risk, **slashing** risk, and liquidation. A 5% depeg on a 3x leveraged position can trigger forced liquidation. This is an advanced strategy that requires active monitoring and understanding of liquidation mechanics. **Restaking** A newer paradigm where LSTs are used to secure additional protocols beyond the base chain. **Restaking** through protocols like EigenLayer (Ethereum) or similar Solana initiatives lets you earn extra yield by extending your economic security to oracle networks, bridges, or rollups. The tradeoff is additional slashing conditions and smart contract exposure.
Common Mistakes with LSTs
Even experienced DeFi users make predictable errors with liquid staking. Avoid these traps. • Treating an LST depeg as permanent loss. If the protocol is solvent and you can wait for redemption, the peg recovers. Panic selling during a depeg locks in losses that would have been temporary. • Ignoring smart contract risk because "staking is safe." Native staking is safe. Liquid staking wraps that safety in additional code that can fail. Diversify across protocols rather than concentrating in a single LST. • Over-leveraging **recursive looping** strategies without understanding liquidation thresholds. A 3x loop on JitoSOL looks great at 7% base yield until a 4% depeg triggers cascading liquidations. • Choosing an LST based solely on APY without examining the validator set, TVL, audit history, and liquidity depth. The highest yield often comes with the highest risk. • Forgetting that LST gains create taxable events in many jurisdictions. The reward-bearing model (where the token appreciates rather than your balance growing) may have different tax implications than rebasing models. Consult a tax professional familiar with crypto before optimizing for yield. • Ignoring the correlation between your LST and your other DeFi positions. If you hold JitoSOL as collateral and also have long SOL exposure elsewhere, a sharp SOL drawdown hits both positions simultaneously.
The Academic Perspective
Liquid staking is not just a DeFi primitive. It has attracted serious academic scrutiny. A comprehensive [Systematization of Knowledge paper on liquid staking](https://arxiv.org/html/2404.00644v3) published on arXiv examines the mechanism design, security properties, and systemic risks of LST protocols across chains. The paper highlights several findings relevant to practitioners. First, LST protocols create concentrated points of failure: a bug in Lido's contracts would affect a quarter of Ethereum's security budget simultaneously. Second, the composability of LSTs across DeFi layers creates recursive risk dependencies that are difficult to model. Third, the "liquid" in liquid staking is only as liquid as secondary market depth allows, and that depth evaporates precisely when you need it most (during market stress). These are not reasons to avoid LSTs. They are reasons to size positions thoughtfully and diversify across protocols.
FAQ
### What is a liquid staking token? A liquid staking token (LST) is a derivative that represents a staked position in a proof-of-stake network. When you deposit tokens like ETH or SOL into a liquid staking protocol, you receive an LST that accrues staking rewards while remaining tradable and usable across DeFi protocols. ### How is liquid staking different from regular staking? Regular staking locks your tokens for a set period, making them completely inaccessible. Liquid staking gives you a tradable token (LST) in return, so you earn staking rewards while keeping the ability to trade, lend, or use your position as collateral in other protocols. The economic exposure to staking is the same, but liquid staking removes the opportunity cost of locked capital. ### Is liquid staking safe? Liquid staking introduces additional risks beyond regular staking: smart contract vulnerabilities, depeg events, and protocol-specific governance risks. Established protocols like Lido, Jito, and Marinade have strong track records with multiple audits. The key is choosing well-audited protocols with diversified validator sets, checking TVL and liquidity depth, and never concentrating all your staked capital in a single protocol. ### What is the difference between rebasing and reward-bearing LSTs? Rebasing LSTs (like stETH) increase your token balance over time to reflect rewards. Reward-bearing LSTs (like rETH, JitoSOL, mSOL) keep your balance fixed but the token's exchange rate against the base asset increases. Both deliver the same economic return. The main practical difference is in DeFi integration (some protocols handle rebasing tokens differently) and tax treatment. ### Can liquid staking tokens lose their peg? Yes. LSTs can temporarily trade below the value of the underlying asset during market stress or liquidity crunches. The stETH depeg in June 2022 saw prices drop 5-6% below ETH during the Three Arrows Capital collapse. However, if the protocol remains solvent, the peg typically recovers because tokens remain redeemable for the underlying asset at the protocol level. ### Which Solana LST has the highest yield? As of March 2026, Sanctum's INF token leads at 7.1-8.5% APY by aggregating multiple LSTs and capturing swap fees. Among single-protocol LSTs, mSOL and JitoSOL compete closely in the 6-8% range. Yields fluctuate with network conditions and MEV activity, so always check live data before making allocation decisions. ### What happens if a validator gets slashed? If a validator backing an LST protocol is slashed, the loss is distributed across all stakers in the pool proportionally. Most LST protocols mitigate this by diversifying across hundreds of validators, so any single slashing event has minimal impact on your position. For example, a slashing penalty of 1 ETH against Lido's 8.7 million ETH TVL is negligible at the individual staker level. ### Can I use LSTs in DeFi strategies? Absolutely. LSTs are designed for DeFi composability. You can use them as collateral in lending protocols to borrow stablecoins, provide liquidity in correlated-pair AMM pools, enter recursive yield strategies, or deploy them in restaking protocols. This composability is the core advantage over native staking and the reason LSTs have become a foundational DeFi building block.
Conclusion
Liquid staking tokens have evolved from a niche innovation into a foundational DeFi primitive securing tens of billions in value. They solve the core tension between network security and capital efficiency, letting you earn staking rewards while your tokens work across the broader DeFi ecosystem. The key takeaways: understand the mechanics (rebasing vs reward-bearing), choose protocols based on security, decentralization, and liquidity rather than APY alone, and respect the risk stack that each additional DeFi layer adds to your position. Ethereum offers the largest and most battle-tested LST ecosystem with stETH and rETH, while Solana delivers significantly higher base yields through JitoSOL, mSOL, and the innovative INF meta-LST. Ready to put this into practice? Compare live APY, TVL, and validator distribution across every Solana LST on the [Lince Tracker](https://yields.lince.finance/tracker/solana/category/lst) -- then pick the protocol that matches your risk profile.